Commit b7896fb55fbaae28268d702e91d903b67b33727a - assimp

Imported Upstream version 3.1.1~dfsg IOhannes m zmölnig 8 years ago

497 changed file(s) with 71367 addition(s) and 43857 deletion(s). Raw diff Collapse all Expand all

+19

-0

.travis.yml less more

	0	before_install:
	1	- sudo apt-get install cmake
	2
	3	env:
	4	- TRAVIS_NO_EXPORT=YES
	5	- TRAVIS_NO_EXPORT=NO
	6	- TRAVIS_STATIC_BUILD=ON
	7	- TRAVIS_STATIC_BUILD=OFF
	8
	9	language: cpp
	10
	11	compiler:
	12	- gcc
	13	- clang
	14
	15	script: cmake -G "Unix Makefiles" -DASSIMP_ENABLE_BOOST_WORKAROUND=YES -DASSIMP_NO_EXPORT=$TRAVIS_NO_EXPORT -STATIC_BUILD=$TRAVIS_STATIC_BUILD && make
	16
	17
	18

-6

AssimpConfigVersion.cmake.in less more

0		set(PACKAGE_VERSION "@ASSIMP_SOVERSION@")
	0	set(ASSIMP_PACKAGE_VERSION "@ASSIMP_SOVERSION@")
1	1
2	2	# Check whether the requested PACKAGE_FIND_VERSION is compatible
3		if("${PACKAGE_VERSION}" VERSION_LESS "${PACKAGE_FIND_VERSION}")
4		set(PACKAGE_VERSION_COMPATIBLE FALSE)
	3	if("${ASSIMP_PACKAGE_VERSION}" VERSION_LESS "${ASSIMP_PACKAGE_FIND_VERSION}")
	4	set(ASSIMP_PACKAGE_VERSION_COMPATIBLE FALSE)
5	5	else()
6		set(PACKAGE_VERSION_COMPATIBLE TRUE)
7		if ("${PACKAGE_VERSION}" VERSION_EQUAL "${PACKAGE_FIND_VERSION}")
8		set(PACKAGE_VERSION_EXACT TRUE)
	6	set(ASSIMP_PACKAGE_VERSION_COMPATIBLE TRUE)
	7	if ("${ASSIMP_PACKAGE_VERSION}" VERSION_EQUAL "${ASSIMP_PACKAGE_FIND_VERSION}")
	8	set(ASSIMP_PACKAGE_VERSION_EXACT TRUE)
9	9	endif()
10	10	endif()

+31

-3

CHANGES less more

0	0	----------------------------------------------------------------------
1	1	CHANGELOG
2	2	----------------------------------------------------------------------
	3
	4
	5	3.0 (2012-07-07)
	6
	7	FEATURES:
	8	- new export interface similar to the import API.
	9	- Supported export formats: Collada, OBJ, PLY and STL
	10	- added new import formats: XGL/ZGL, M3 (experimental)
	11	- new postprocessing steps: Debone
	12	- vastly improved IFC (Industry Foundation Classes) support
	13	- introduced API to query importer meta information (such as supported
	14	format versions, full name, maintainer info).
	15	- reworked Ogre XML import
	16	- C-API now supports per-import properties
	17
	18	FIXES/HOUSEKEEPING:
	19
	20	- hundreds of bugfixes in all parts of the library
	21	- unified naming and cleanup of public headers
	22	- improved CMake build system
	23	- templatized math library
	24	- reduce dependency on boost.thread, only remaining spot
	25	is synchronization for the C logging API
	26
	27	API COMPATIBILITY:
	28	- renamed headers, export interface, C API properties and meta data
	29	prevent compatibility with code written for 2.0, but in
	30	most cases these can be easily resolved
	31	- Note: 3.0 is not binary compatible with 2.0
	32
3	33
4	34
5	35

43	73
44	74
45	75
46
47
48	76	1.1 (2010-04-17)
49	77	This is the list of relevant changes from the 1.0 (r412) release to 1.1 (r700).
50	78

84	112
85	113	MINOR API BEHAVIOUR CHANGES:
86	114	- Change quaternion orientation to suit to the more common convention (-w).
87		- aiString is utf8 now. Not yet consistent, however.⏎
	115	- aiString is utf8 now. Not yet consistent, however.

+149

-101

CMakeLists.txt less more

1	1	PROJECT( Assimp )
2	2
3	3	# Define here the needed parameters
4		set (ASSIMP_SV_REVISION 1264)
5	4	set (ASSIMP_VERSION_MAJOR 3)
6		set (ASSIMP_VERSION_MINOR 0)
7		set (ASSIMP_VERSION_PATCH ${ASSIMP_SV_REVISION}) # subversion revision?
	5	set (ASSIMP_VERSION_MINOR 1)
	6	set (ASSIMP_VERSION_PATCH 1) # subversion revision?
8	7	set (ASSIMP_VERSION ${ASSIMP_VERSION_MAJOR}.${ASSIMP_VERSION_MINOR}.${ASSIMP_VERSION_PATCH})
9	8	set (ASSIMP_SOVERSION 3)
10		SET ( PROJECT_VERSION "${ASSIMP_VERSION}" )
11
12		set(PACKAGE_VERSION "0" CACHE STRING "the package-specific version used for uploading the sources")
13
14		option(OPT_BUILD_PACKAGES "Set to ON to generate CPack configuration files and packaging targets" OFF)
15		set(CMAKE_MODULE_PATH "${CMAKE_CURRENT_SOURCE_DIR}/cmake-modules")
16		set(LIBASSIMP_COMPONENT libassimp${ASSIMP_VERSION_MAJOR}.${ASSIMP_VERSION_MINOR}-r${ASSIMP_SV_REVISION})
17		set(LIBASSIMP-DEV_COMPONENT libassimp${ASSIMP_VERSION_MAJOR}.${ASSIMP_VERSION_MINOR}-r${ASSIMP_SV_REVISION}-dev)
	9	set (PROJECT_VERSION "${ASSIMP_VERSION}")
	10
	11	set(ASSIMP_PACKAGE_VERSION "0" CACHE STRING "the package-specific version used for uploading the sources")
	12
	13	# Get the current working branch
	14	execute_process(
	15	COMMAND git rev-parse --abbrev-ref HEAD
	16	WORKING_DIRECTORY ${CMAKE_SOURCE_DIR}
	17	OUTPUT_VARIABLE GIT_BRANCH
	18	OUTPUT_STRIP_TRAILING_WHITESPACE
	19	)
	20
	21	# Get the latest abbreviated commit hash of the working branch
	22	execute_process(
	23	COMMAND git log -1 --format=%h
	24	WORKING_DIRECTORY ${CMAKE_SOURCE_DIR}
	25	OUTPUT_VARIABLE GIT_COMMIT_HASH
	26	OUTPUT_STRIP_TRAILING_WHITESPACE
	27	)
	28
	29	if(NOT GIT_COMMIT_HASH)
	30	set(GIT_COMMIT_HASH 0)
	31	endif(NOT GIT_COMMIT_HASH)
	32
	33	configure_file(
	34	${CMAKE_SOURCE_DIR}/revision.h.in
	35	${CMAKE_BINARY_DIR}/revision.h
	36	)
	37
	38	include_directories(${CMAKE_BINARY_DIR})
	39
	40	option(ASSIMP_OPT_BUILD_PACKAGES "Set to ON to generate CPack configuration files and packaging targets" OFF)
	41	set(CMAKE_MODULE_PATH "${CMAKE_CURRENT_SOURCE_DIR}/cmake-modules" )
	42	set(LIBASSIMP_COMPONENT "libassimp${ASSIMP_VERSION_MAJOR}.${ASSIMP_VERSION_MINOR}.${ASSIMP_VERSION_PATCH}" )
	43	set(LIBASSIMP-DEV_COMPONENT "libassimp${ASSIMP_VERSION_MAJOR}.${ASSIMP_VERSION_MINOR}.${ASSIMP_VERSION_PATCH}-dev" )
18	44	set(CPACK_COMPONENTS_ALL assimp-bin ${LIBASSIMP_COMPONENT} ${LIBASSIMP-DEV_COMPONENT} assimp-dev)
19
20		if(CMAKE_COMPILER_IS_GNUCC OR CMAKE_COMPILER_IS_GNUCXX)
	45	set(ASSIMP_LIBRARY_SUFFIX "" CACHE STRING "Suffix to append to library names")
	46
	47	if((CMAKE_COMPILER_IS_GNUCC OR CMAKE_COMPILER_IS_GNUCXX) AND NOT CMAKE_COMPILER_IS_MINGW)
21	48	add_definitions(-fPIC) # this is a very important switch and some libraries seem now to have it....
22		## hide all not-exported symbols
23		add_definitions( -fvisibility=hidden )
	49	# hide all not-exported symbols
	50	add_definitions( -fvisibility=hidden -Wall )
	51	elseif(MSVC)
	52	# enable multi-core compilation with MSVC
	53	add_definitions(/MP)
24	54	endif()
25	55
26	56	INCLUDE (FindPkgConfig)
27	57	INCLUDE_DIRECTORIES( include )
	58
	59	INCLUDE (PrecompiledHeader)
28	60
29	61	# If this is an in-source build (CMAKE_SOURCE_DIR == CMAKE_BINARY_DIR),
30	62	# write the library/executable files to the respective directories in the
31	63	# source tree. During an out-of-source build, however, do not litter this
32	64	# directory, since that is probably what the user wanted to avoid.
33	65	IF ( CMAKE_SOURCE_DIR STREQUAL CMAKE_BINARY_DIR )
34		SET( CMAKE_LIBRARY_OUTPUT_DIRECTORY ${CMAKE_HOME_DIRECTORY}/lib )
35		SET( CMAKE_ARCHIVE_OUTPUT_DIRECTORY ${CMAKE_HOME_DIRECTORY}/lib )
36		SET( CMAKE_RUNTIME_OUTPUT_DIRECTORY ${CMAKE_HOME_DIRECTORY}/bin )
	66	SET( CMAKE_LIBRARY_OUTPUT_DIRECTORY "${CMAKE_HOME_DIRECTORY}/lib" )
	67	SET( CMAKE_ARCHIVE_OUTPUT_DIRECTORY "${CMAKE_HOME_DIRECTORY}/lib" )
	68	SET( CMAKE_RUNTIME_OUTPUT_DIRECTORY "${CMAKE_HOME_DIRECTORY}/bin" )
37	69	ENDIF ( CMAKE_SOURCE_DIR STREQUAL CMAKE_BINARY_DIR )
38	70
39	71	# Cache these to allow the user to override them manually.
40		SET( LIB_INSTALL_DIR "lib" CACHE PATH
	72	SET( ASSIMP_LIB_INSTALL_DIR "lib" CACHE PATH
41	73	"Path the built library files are installed to." )
42		SET( INCLUDE_INSTALL_DIR "include" CACHE PATH
	74	SET( ASSIMP_INCLUDE_INSTALL_DIR "include" CACHE PATH
43	75	"Path the header files are installed to." )
44		SET( BIN_INSTALL_DIR "bin" CACHE PATH
	76	SET( ASSIMP_BIN_INSTALL_DIR "bin" CACHE PATH
45	77	"Path the tool executables are installed to." )
46
47		SET(DEBUG_POSTFIX "D" CACHE STRING "Debug Postfitx for lib, samples and tools")
	78	SET ( ASSIMP_BUILD_STATIC_LIB OFF CACHE BOOL
	79	"Build a static (.a) version of the library" )
	80
	81	SET(ASSIMP_DEBUG_POSTFIX "d" CACHE STRING "Debug Postfitx for lib, samples and tools")
	82
	83	# Allow the user to build a static library
	84	option ( BUILD_SHARED_LIBS "Build a shared version of the library" ON )
	85	IF ( ASSIMP_BUILD_STATIC_LIB )
	86	option ( BUILD_SHARED_LIBS "Build a shared version of the library" OFF )
	87	ELSE ( ASSIMP_BUILD_STATIC_LIB )
	88	option ( BUILD_SHARED_LIBS "Build a shared version of the library" ON )
	89	ENDIF ( ASSIMP_BUILD_STATIC_LIB )
48	90
49	91	# Generate a pkg-config .pc for the Assimp library.
50	92	CONFIGURE_FILE( "${PROJECT_SOURCE_DIR}/assimp.pc.in" "${PROJECT_BINARY_DIR}/assimp.pc" @ONLY )
51		INSTALL( FILES "${PROJECT_BINARY_DIR}/assimp.pc" DESTINATION ${LIB_INSTALL_DIR}/pkgconfig/ COMPONENT ${LIBASSIMP-DEV_COMPONENT})
52
53		# cmake configuration files
54		configure_file("${CMAKE_CURRENT_SOURCE_DIR}/assimp-config.cmake.in" "${CMAKE_CURRENT_BINARY_DIR}/assimp-config.cmake" @ONLY IMMEDIATE)
55		configure_file("${CMAKE_CURRENT_SOURCE_DIR}/assimp-config-version.cmake.in" "${CMAKE_CURRENT_BINARY_DIR}/assimp-config-version.cmake" @ONLY IMMEDIATE)
56		install(FILES "${CMAKE_CURRENT_BINARY_DIR}/assimp-config.cmake" "${CMAKE_CURRENT_BINARY_DIR}/assimp-config-version.cmake" DESTINATION "${LIB_INSTALL_DIR}/cmake/assimp-${ASSIMP_VERSION_MAJOR}.${ASSIMP_VERSION_MINOR}" COMPONENT ${LIBASSIMP-DEV_COMPONENT})
57
58		# add make uninstall capability
59		configure_file("${CMAKE_CURRENT_SOURCE_DIR}/cmake-modules/cmake_uninstall.cmake.in" "${CMAKE_CURRENT_BINARY_DIR}/cmake_uninstall.cmake" IMMEDIATE @ONLY)
60		add_custom_target(uninstall "${CMAKE_COMMAND}" -P "${CMAKE_CURRENT_BINARY_DIR}/cmake_uninstall.cmake")
61
62		# Allow the user to build a static library
63		SET ( BUILD_STATIC_LIB OFF CACHE BOOL
64		"Build a static (.a) version of the library"
65		)
66
67		# Globally enbale Boost resp. the Boost workaround – it is also needed by the
	93	INSTALL( FILES "${PROJECT_BINARY_DIR}/assimp.pc" DESTINATION ${ASSIMP_LIB_INSTALL_DIR}/pkgconfig/ COMPONENT ${LIBASSIMP-DEV_COMPONENT})
	94
	95	# Only generate this target if no higher-level project already has
	96	IF (NOT TARGET uninstall)
	97	# add make uninstall capability
	98	configure_file("${CMAKE_CURRENT_SOURCE_DIR}/cmake-modules/cmake_uninstall.cmake.in" "${CMAKE_CURRENT_BINARY_DIR}/cmake_uninstall.cmake" IMMEDIATE @ONLY)
	99	add_custom_target(uninstall "${CMAKE_COMMAND}" -P "${CMAKE_CURRENT_BINARY_DIR}/cmake_uninstall.cmake")
	100	ENDIF()
	101
	102	# Globally enable Boost resp. the Boost workaround – it is also needed by the
68	103	# tools which include the Assimp headers.
69		SET ( ENABLE_BOOST_WORKAROUND OFF CACHE BOOL
	104	SET ( ASSIMP_ENABLE_BOOST_WORKAROUND ON CACHE BOOL
70	105	"If a simple implementation of the used Boost functions is used. Slightly reduces functionality, but enables builds without Boost available."
71	106	)
72		IF ( ENABLE_BOOST_WORKAROUND )
	107	IF ( ASSIMP_ENABLE_BOOST_WORKAROUND )
73	108	INCLUDE_DIRECTORIES( code/BoostWorkaround )
74	109	ADD_DEFINITIONS( -DASSIMP_BUILD_BOOST_WORKAROUND )
75	110	MESSAGE( STATUS "Building a non-boost version of Assimp." )
76		ELSE ( ENABLE_BOOST_WORKAROUND )
	111	ELSE ( ASSIMP_ENABLE_BOOST_WORKAROUND )
77	112	SET( Boost_DETAILED_FAILURE_MSG ON )
78		SET( Boost_ADDITIONAL_VERSIONS "1.47" "1.47.0" "1.48.0" "1.48" "1.49" "1.49.0" "1.50")
	113	SET( Boost_ADDITIONAL_VERSIONS "1.47" "1.47.0" "1.48.0" "1.48" "1.49" "1.49.0" "1.50" "1.50.0" "1.51" "1.51.0" "1.52.0" "1.53.0" "1.54.0" "1.55" )
79	114	FIND_PACKAGE( Boost )
80	115	IF ( NOT Boost_FOUND )
81	116	MESSAGE( FATAL_ERROR
82	117	"Boost libraries (http://www.boost.org/) not found. "
83	118	"You can build a non-boost version of Assimp with slightly reduced "
84		"functionality by specifying -DENABLE_BOOST_WORKAROUND=ON."
	119	"functionality by specifying -DASSIMP_ENABLE_BOOST_WORKAROUND=ON."
85	120	)
86	121	ENDIF ( NOT Boost_FOUND )
87	122
88	123	INCLUDE_DIRECTORIES( ${Boost_INCLUDE_DIRS} )
89		ENDIF ( ENABLE_BOOST_WORKAROUND )
90
91
92		SET ( NO_EXPORT OFF CACHE BOOL
	124	ENDIF ( ASSIMP_ENABLE_BOOST_WORKAROUND )
	125
	126	# cmake configuration files
	127	configure_file("${CMAKE_CURRENT_SOURCE_DIR}/assimp-config.cmake.in" "${CMAKE_CURRENT_BINARY_DIR}/assimp-config.cmake" @ONLY IMMEDIATE)
	128	configure_file("${CMAKE_CURRENT_SOURCE_DIR}/assimp-config-version.cmake.in" "${CMAKE_CURRENT_BINARY_DIR}/assimp-config-version.cmake" @ONLY IMMEDIATE)
	129	install(FILES "${CMAKE_CURRENT_BINARY_DIR}/assimp-config.cmake" "${CMAKE_CURRENT_BINARY_DIR}/assimp-config-version.cmake" DESTINATION "${ASSIMP_LIB_INSTALL_DIR}/cmake/assimp-${ASSIMP_VERSION_MAJOR}.${ASSIMP_VERSION_MINOR}" COMPONENT ${LIBASSIMP-DEV_COMPONENT})
	130
	131	SET ( ASSIMP_NO_EXPORT OFF CACHE BOOL
93	132	"Disable Assimp's export functionality."
94	133	)
95	134

104	143	# compile from sources
105	144	add_subdirectory(contrib/zlib)
106	145	set(ZLIB_FOUND 1)
107		set(ZLIB_LIBRARIES zlib)
108		set(ZLIB_INCLUDE_DIR ${CMAKE_CURRENT_SOURCE_DIR}/3rdparty/zlib)
	146	set(ZLIB_LIBRARIES zlibstatic)
	147	set(ZLIB_INCLUDE_DIR ${CMAKE_CURRENT_SOURCE_DIR}/contrib/zlib ${CMAKE_CURRENT_BINARY_DIR}/contrib/zlib)
109	148	else(NOT ZLIB_FOUND)
110	149	ADD_DEFINITIONS(-DASSIMP_BUILD_NO_OWN_ZLIB)
111	150	endif(NOT ZLIB_FOUND)

116	155	PKG_CHECK_MODULES(UNZIP minizip)
117	156	endif (PKG_CONFIG_FOUND)
118	157
119		IF ( NO_EXPORT )
	158	IF ( ASSIMP_NO_EXPORT )
120	159	ADD_DEFINITIONS( -DASSIMP_BUILD_NO_EXPORT)
121	160	MESSAGE( STATUS "Build an import-only version of Assimp." )
122		ENDIF( NO_EXPORT )
123
124
	161	ENDIF( ASSIMP_NO_EXPORT )
	162
	163	# if(CMAKE_CL_64)
	164	# set(ASSIMP_BUILD_ARCHITECTURE "amd64")
	165	# else(CMAKE_CL_64)
	166	# set(ASSIMP_BUILD_ARCHITECTURE "x86")
	167	# endif(CMAKE_CL_64)
125	168	SET ( ASSIMP_BUILD_ARCHITECTURE "" CACHE STRING
126	169	"describe the current architecture."
127	170	)

130	173	ADD_DEFINITIONS ( -D'ASSIMP_BUILD_ARCHITECTURE="${ASSIMP_BUILD_ARCHITECTURE}"' )
131	174	ENDIF ( ASSIMP_BUILD_ARCHITECTURE STREQUAL "")
132	175
	176	# ${CMAKE_GENERATOR}
133	177	SET ( ASSIMP_BUILD_COMPILER "" CACHE STRING
134	178	"describe the current compiler."
135	179	)

140	184
141	185	MARK_AS_ADVANCED ( ASSIMP_BUILD_ARCHITECTURE ASSIMP_BUILD_COMPILER )
142	186
143
144	187	ADD_SUBDIRECTORY( code/ )
145		SET ( BUILD_ASSIMP_TOOLS ON CACHE BOOL
	188	SET ( ASSIMP_BUILD_ASSIMP_TOOLS ON CACHE BOOL
146	189	"If the supplementary tools for Assimp are built in addition to the library."
147	190	)
148		IF ( BUILD_ASSIMP_TOOLS )
	191	IF ( ASSIMP_BUILD_ASSIMP_TOOLS )
149	192	IF ( WIN32 )
150	193	ADD_SUBDIRECTORY( tools/assimp_view/ )
151	194	ENDIF ( WIN32 )
152	195	ADD_SUBDIRECTORY( tools/assimp_cmd/ )
153		ENDIF ( BUILD_ASSIMP_TOOLS )
154
155		SET ( BUILD_ASSIMP_SAMPLES ON CACHE BOOL
	196	ENDIF ( ASSIMP_BUILD_ASSIMP_TOOLS )
	197
	198	SET ( ASSIMP_BUILD_SAMPLES OFF CACHE BOOL
156	199	"If the official samples are built as well (needs Glut)."
157	200	)
158	201
159		IF ( BUILD_ASSIMP_SAMPLES)
	202	IF ( ASSIMP_BUILD_SAMPLES)
160	203	IF ( WIN32 )
161	204	ADD_SUBDIRECTORY( samples/SimpleTexturedOpenGL/ )
162	205	ENDIF ( WIN32 )
163	206	ADD_SUBDIRECTORY( samples/SimpleOpenGL/ )
164		ENDIF ( BUILD_ASSIMP_SAMPLES )
165
166		SET ( BUILD_TESTS OFF CACHE BOOL
167		"If the test suite for Assimp is built in addition to the library."
168		)
169		IF ( BUILD_TESTS )
170		IF ( WIN32 )
	207	ENDIF ( ASSIMP_BUILD_SAMPLES )
	208
	209	IF ( WIN32 )
	210	SET ( ASSIMP_BUILD_TESTS ON CACHE BOOL
	211	"If the test suite for Assimp is built in addition to the library."
	212	)
	213
	214	IF ( ASSIMP_BUILD_TESTS )
171	215	ADD_SUBDIRECTORY( test/ )
172		ELSE ( WIN32 )
173		MESSAGE( WARNING "The Assimp test suite is currently Windows-only." )
174		ENDIF ( WIN32 )
175		ENDIF ( BUILD_TESTS )
176
177		if(CMAKE_CPACK_COMMAND AND UNIX AND OPT_BUILD_PACKAGES)
	216	ENDIF ( ASSIMP_BUILD_TESTS )
	217	ENDIF ( WIN32 )
	218
	219	IF(MSVC)
	220	SET ( ASSIMP_INSTALL_PDB ON CACHE BOOL
	221	"Install MSVC debug files."
	222	)
	223	ENDIF(MSVC)
	224
	225	if(CMAKE_CPACK_COMMAND AND UNIX AND ASSIMP_OPT_BUILD_PACKAGES)
178	226	# Packing information
179		set(CPACK_PACKAGE_NAME assimp{ASSIMP_VERSION_MAJOR})
	227	set(CPACK_PACKAGE_NAME "assimp{ASSIMP_VERSION_MAJOR}")
180	228	set(CPACK_PACKAGE_CONTACT "" CACHE STRING "Package maintainer and PGP signer.")
181		set(CPACK_PACKAGE_VENDOR "http://assimp.sourceforge.net/")
182		set(CPACK_PACKAGE_DISPLAY_NAME "Assimp ${ASSIMP_VERSION}")
183		set(CPACK_PACKAGE_DESCRIPTION_SUMMARY " - Open Asset Import Library ${ASSIMP_VERSION}")
184		set(CPACK_PACKAGE_VERSION ${ASSIMP_VERSION}.${PACKAGE_VERSION})
185		set(CPACK_PACKAGE_VERSION_MAJOR ${ASSIMP_VERSION_MAJOR})
186		set(CPACK_PACKAGE_VERSION_MINOR ${ASSIMP_VERSION_MINOR})
187		set(CPACK_PACKAGE_VERSION_PATCH ${ASSIMP_VERSION_PATCH})
188		set(CPACK_PACKAGE_INSTALL_DIRECTORY "assimp${ASSIMP_VERSION_MAJOR}.${ASSIMP_VERSION_MINOR}")
189		#set(CPACK_PACKAGE_DESCRIPTION_FILE ${CMAKE_CURRENT_SOURCE_DIR}/description)
190		set(CPACK_RESOURCE_FILE_LICENSE ${CMAKE_CURRENT_SOURCE_DIR}/LICENSE)
191
192		string(TOUPPER ${LIBASSIMP_COMPONENT} LIBASSIMP_COMPONENT_UPPER)
193		string(TOUPPER ${LIBASSIMP-DEV_COMPONENT} LIBASSIMP-DEV_COMPONENT_UPPER)
194
195		set(CPACK_COMPONENT_ASSIMP-BIN_DISPLAY_NAME "tools")
196		set(CPACK_COMPONENT_ASSIMP-BIN_DEPENDS ${LIBASSIMP_COMPONENT})
197		set(CPACK_COMPONENT_${LIBASSIMP_COMPONENT_UPPER}_DISPLAY_NAME "libraries")
	229	set(CPACK_PACKAGE_VENDOR "http://assimp.sourceforge.net/")
	230	set(CPACK_PACKAGE_DISPLAY_NAME "Assimp ${ASSIMP_VERSION}")
	231	set(CPACK_PACKAGE_DESCRIPTION_SUMMARY " - Open Asset Import Library ${ASSIMP_VERSION}")
	232	set(CPACK_PACKAGE_VERSION "${ASSIMP_VERSION}.${ASSIMP_PACKAGE_VERSION}" )
	233	set(CPACK_PACKAGE_VERSION_MAJOR "${ASSIMP_VERSION_MAJOR}")
	234	set(CPACK_PACKAGE_VERSION_MINOR "${ASSIMP_VERSION_MINOR}")
	235	set(CPACK_PACKAGE_VERSION_PATCH "${ASSIMP_VERSION_PATCH}")
	236	set(CPACK_PACKAGE_INSTALL_DIRECTORY "assimp${ASSIMP_VERSION_MAJOR}.${ASSIMP_VERSION_MINOR}")
	237	#set(CPACK_PACKAGE_DESCRIPTION_FILE "${CMAKE_CURRENT_SOURCE_DIR}/description")
	238	set(CPACK_RESOURCE_FILE_LICENSE "${CMAKE_CURRENT_SOURCE_DIR}/LICENSE")
	239
	240	string(TOUPPER ${LIBASSIMP_COMPONENT} "LIBASSIMP_COMPONENT_UPPER")
	241	string(TOUPPER ${LIBASSIMP-DEV_COMPONENT} "LIBASSIMP-DEV_COMPONENT_UPPER")
	242
	243	set(CPACK_COMPONENT_ASSIMP-BIN_DISPLAY_NAME "tools")
	244	set(CPACK_COMPONENT_ASSIMP-BIN_DEPENDS "${LIBASSIMP_COMPONENT}" )
	245	set(CPACK_COMPONENT_${LIBASSIMP_COMPONENT_UPPER}_DISPLAY_NAME "libraries")
198	246	set(CPACK_COMPONENT_${LIBASSIMP-DEV_COMPONENT_UPPER}_DISPLAY_NAME "common headers and installs")
199		set(CPACK_COMPONENT_${LIBASSIMP-DEV_COMPONENT_UPPER}_DEPENDS ${LIBASSIMP_COMPONENT})
200		set(CPACK_COMPONENT_ASSIMP-DEV_DISPLAY_NAME ${CPACK_COMPONENT_${LIBASSIMP-DEV_COMPONENT}_DISPLAY_NAME})
201		set(CPACK_COMPONENT_ASSIMP-DEV_DEPENDS ${LIBASSIMP-DEV_COMPONENT})
	247	set(CPACK_COMPONENT_${LIBASSIMP-DEV_COMPONENT_UPPER}_DEPENDS $ "{LIBASSIMP_COMPONENT}" )
	248	set(CPACK_COMPONENT_ASSIMP-DEV_DISPLAY_NAME "${CPACK_COMPONENT_${LIBASSIMP-DEV_COMPONENT}_DISPLAY_NAME}" )
	249	set(CPACK_COMPONENT_ASSIMP-DEV_DEPENDS "${LIBASSIMP-DEV_COMPONENT}" )
202	250	set(CPACK_DEBIAN_BUILD_DEPENDS debhelper cmake libboost-dev libboost-thread-dev libboost-math-dev zlib1g-dev pkg-config)
203	251
204	252	# debian
205		set(CPACK_DEBIAN_PACKAGE_PRIORITY optional)
206		set(CPACK_DEBIAN_CMAKE_OPTIONS "-DBUILD_ASSIMP_SAMPLES:BOOL=${BUILD_ASSIMP_SAMPLES}")
207		set(CPACK_DEBIAN_PACKAGE_SECTION libs)
208		set(CPACK_DEBIAN_PACKAGE_DEPENDS ${CPACK_COMPONENTS_ALL})
	253	set(CPACK_DEBIAN_PACKAGE_PRIORITY "optional")
	254	set(CPACK_DEBIAN_CMAKE_OPTIONS "-DBUILD_ASSIMP_SAMPLES:BOOL=${ASSIMP_BUILD_SAMPLES}")
	255	set(CPACK_DEBIAN_PACKAGE_SECTION "libs" )
	256	set(CPACK_DEBIAN_PACKAGE_DEPENDS "${CPACK_COMPONENTS_ALL}")
209	257	set(CPACK_DEBIAN_PACKAGE_SUGGESTS)
210		set(CPACK_DEBIAN_PACKAGE_NAME assimp)
	258	set(CPACK_DEBIAN_PACKAGE_NAME "assimp")
211	259	set(CPACK_DEBIAN_PACKAGE_REMOVE_SOURCE_FILES contrib/cppunit-1.12.1 contrib/cppunit_note.txt contrib/zlib workspaces test doc obj samples packaging)
212	260	set(CPACK_DEBIAN_PACKAGE_SOURCE_COPY svn export --force)
213	261	set(CPACK_DEBIAN_CHANGELOG)

+17

-5

CREDITS less more

2	2	Developers and Contributors
3	3	===============================================================
4	4
5		The following is the list of all constributors.
6		Thanks for your help!
	5	The following is a non-exhaustive list of all constributors over the years.
	6	If you think your name should be listed here, drop us a line and we'll add you.
7	7
8	8	- Alexander Gessler,
9	9	3DS-, BLEND-, ASE-, DXF-, HMP-, MDL-, MD2-, MD3-, MD5-, MDC-, NFF-, PLY-, STL-, RAW-, OFF-, MS3D-, Q3D- and LWO-Loader, Assimp-Viewer, assimp-cmd, -noboost, Website (Admin and Design).

40	40	- Andreas Nagel
41	41	First Assimp testing & verification under Windows Vista 64 Bit.
42	42
43		- Marius Schröder
	43	- Marius Schr�der
44	44	Allowed us to use many of his models for screenshots and testing.
45	45
46	46	- Christian Schubert

91	91	- Matthias Fauconneau
92	92	Contributed a fix for the Q3-BSP loader.
93	93
94		- Jørgen P. Tjernø
	94	- J�rgen P. Tjern�
95	95	Contributed updated and improved xcode workspaces
96	96
97	97	- drparallax

134	134	GCC/Linux fixes for the SimpleOpenGL sample.
135	135
136	136	- Brian Miller
137		Bugfix for a compiler fix for iOS on arm.⏎
	137	Bugfix for a compiler fix for iOS on arm.
	138
	139	- S�verin Lemaignan
	140	Rewrite of PyAssimp, distutils and Python3 support
	141
	142	- albert-wang
	143	Bugfixes for the collada parser
	144
	145	- Ya ping Jin
	146	Bugfixes for uv-tanget calculation.
	147
	148	- Jonne Nauha
	149	Ogre Binary format support

+14

-0

CodeConventions.txt less more

	0	===============================================
	1	The Asset-Importer-Library Coding conventions
	2	===============================================
	3
	4	If you want to participate to the Asset-Importer_Library please have a look
	5	onto these coding conventions and try to follow them. They are more or less
	6	some kind of guide line to help others coming into the code and help all
	7	the Asset-Importer-Library users.
	8
	9	Tab width
	10	===========
	11	The tab width shall be 4 spaces.
	12
	13	⏎

-1

INSTALL less more

1	1	========================================================================
2	2	Open Asset Import Library (assimp) INSTALL
3	3	========================================================================
4
5	4
6	5	------------------------------
7	6	Getting the documentation

+38

-0

LICENSE less more

34	34
35	35
36	36
	37	******************************************************************************
	38
37	39	AN EXCEPTION applies to all files in the ./test/models-nonbsd folder.
38	40	These are 3d models for testing purposes, from various free sources
39	41	on the internet. They are - unless otherwise stated - copyright of

43	45	are a copyright holder and believe that we credited you inproperly or
44	46	if you don't want your files to appear in the repository.
45	47
	48
	49	******************************************************************************
	50
	51	Poly2Tri Copyright (c) 2009-2010, Poly2Tri Contributors
	52	http://code.google.com/p/poly2tri/
	53
	54	All rights reserved.
	55	Redistribution and use in source and binary forms, with or without modification,
	56	are permitted provided that the following conditions are met:
	57
	58	* Redistributions of source code must retain the above copyright notice,
	59	this list of conditions and the following disclaimer.
	60	* Redistributions in binary form must reproduce the above copyright notice,
	61	this list of conditions and the following disclaimer in the documentation
	62	and/or other materials provided with the distribution.
	63	* Neither the name of Poly2Tri nor the names of its contributors may be
	64	used to endorse or promote products derived from this software without specific
	65	prior written permission.
	66
	67	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	68	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	69	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	70	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
	71	CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
	72	EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
	73	PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR
	74	PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF
	75	LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING
	76	NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS
	77	SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	78
	79
	80
	81
	82
	83

-2

~~ProjectHome.url~~ less more

0		[InternetShortcut]
1		URL=http://sourceforge.net/projects/assimp/

-130

README less more

0
1		========================================================================
2		Open Asset Import Library (assimp) README
3		========================================================================
4
5
6		Table of Contents
7
8		1. Overview
9		1.1 Supported file formats
10		1.2 File structure
11		2. Build the library
12		3. Where to get help
13		4. License
14
15
16		------------------------------
17		1. Overview
18		------------------------------
19
20		Open Asset Import Library is a Open Source library designed to load various 3d
21		file formats and convert them into a shared, in-memory format. It supports more
22		than 30 file formats (basically, it is like DevIL for 3D models). It also
23		supports exporting, but the number of export formats is lower.
24
25		Its short name is 'assimp', which is an unintended joke (the abbreviation is
26		derived from 'Asset Importer').
27
28		Note: this README refers to the file structure used by release packages, which
29		differs in some points from the development trunk.
30
31		----------------
32		1.1 Supported file formats
33		----------------
34
35		The library provides importers for a lot of file formats, including:
36		- 3DS
37		- BLEND
38		- DAE (Collada)
39		- IFC-STEP
40		- ASE
41		- DXF
42		- HMP
43		- MD2
44		- MD3
45		- MD5
46		- MDC
47		- MDL
48		- NFF
49		- PLY
50		- STL
51		- X
52		- OBJ
53		- SMD
54		- LWO
55		- LXO
56		- LWS
57		- XML
58		- TER
59		- AC3D
60		- MS3D
61
62		Exporters include:
63		- DAE (Collada)
64		- STL
65		- OBJ
66
67		.. See http://assimp.sourceforge.net/main_features_formats.html for
68		a more exhaustive list.
69
70
71		----------------
72		1.2 Repository structure
73		----------------
74
75		Open Asset Import Library is implemented in C++ (but provides both a C and a
76		C++ish interface). The directory structure is:
77
78		/bin Folder for binaries, only used on Windows
79		/code Source code
80		/contrib Third-party libraries
81		/doc Documentation (doxysource and pre-compiled docs)
82		/include Public header C and C++ header files.
83		/lib Static library location for Windows.
84		/obj Object file location for Windows.
85		/port Ports to other languages and scripts to maintain those.
86		/test Unit- and regression tests, test suite of models.
87		/tools Tools (viewer, command line `assimp`).
88		/samples A small number of samples to illustrate possible
89		use cases for Assimp.
90		/workspaces Build enviroments for vc,xcode,... (deprecated,
91		CMake has superseeded all legacy build options!)
92
93
94		------------------------------
95		2. Build the library
96		------------------------------
97
98		Take a look into the INSTALL file.
99
100
101		------------------------------
102		3. Where to get help
103		------------------------------
104
105		For more information, visit http://assimp.sourceforge.net/. Or have a look into
106		the ./doc- folder, which contains the official documentation in HTML format.
107		(CHMs for Windows are included in some release packages and should be located
108		right here in the root folder).
109
110		If the documentation doesn't solve your problems, try our forums at SF.net
111		> Open Discussion: http://sourceforge.net/projects/assimp/forums/forum/817653)
112		> General Help: http://sourceforge.net/projects/assimp/forums/forum/817654
113
114		For development stuff, there is also a mailing list, assimp-discussions
115		subscribe: https://lists.sourceforge.net/lists/listinfo/assimp-discussions
116
117
118		------------------------------
119		4. License
120		------------------------------
121
122		The license of the Asset Import Library is based on the modified, 3-clause BSD-
123		License, which is a very liberal license. An _informal_ summary is: do whatever
124		you want, but include Assimp's license text with your product - and don't sue
125		us if our code doesn't work.
126
127		Note that, unlike LGPLed code, you may link statically to Assimp.
128		For the formal details, see the LICENSE file.
129
	0	See Readme.md

+52

-57

Readme.md less more

0		Open Asset Import Library (_assimp_)
	0	Open Asset Import Library (assimp)
1	1	========
2	2
	3	Open Asset Import Library is a Open Source library designed to load various __3d file formats and convert them into a shared, in-memory format__. It supports more than __30 file formats__ for import and a growing selection of file formats for export. Additionally, assimp features various __post processing tools__ to refine the imported data: _normals and tangent space generation, triangulation, vertex cache locality optimization, removal of degenerate primitives and duplicate vertices, sorting by primitive type, merging of redundant materials_ and many more.
3	4
4		Table of contents
	5	This is the development trunk of assimp containing the latest features and bugfixes. For productive use though, we recommend one of the stable releases available from [assimp.sf.net](http://assimp.sf.net) or from *nix package repositories. According to [Travis-CI] (https://travis-ci.org/), the current build status of the trunk is [![Build Status](https://travis-ci.org/assimp/assimp.png)](https://travis-ci.org/assimp/assimp)
5	6
6		1. Overview
7		1.1 Supported file formats
8		1.2 File structure
9		2. Build the library
10		3. Where to get help
11		4. License
12
13
14
15
16		### 1. Overview ###
17
18
19		Open Asset Import Library is a Open Source library designed to load various 3d file formats and convert them into a shared, in-memory format. It supports more than 30 file formats. It also supports exporting files to a few selected file formats.
20
21		Its short name is _assimp_, which is an unintended joke (the abbreviation is derived from _Asset Importer_).
22
23		__Note__: this `README` refers to the file structure used by release packages, which differs in some points from the development trunk.
24
25
26		#### 1.1 Supported file formats ####
	7	#### Supported file formats ####
27	8
28	9	The library provides importers for a lot of file formats, including:
29	10
30	11	- 3DS
31		- BLEND
32		- DAE (Collada)
	12	- BLEND (Blender 3D)
	13	- DAE/Collada
	14	- FBX
33	15	- IFC-STEP
34	16	- ASE
35	17	- DXF

47	29	- SMD
48	30	- LWO
49	31	- LXO
50		- LWS
51		- XML
	32	- LWS
52	33	- TER
53	34	- AC3D
54	35	- MS3D
	36	- COB
	37	- Q3BSP
	38	- XGL
	39	- CSM
	40	- BVH
	41	- B3D
	42	- NDO
	43	- Ogre Binary
	44	- Ogre XML
	45	- Q3D
	46
	47	Additionally, the following formats are also supported, but not part of the core library as they depend on proprietary libraries.
	48
	49	- C4D (https://github.com/acgessler/assimp-cinema4d)
55	50
56	51	Exporters include:
57	52
58	53	- DAE (Collada)
59	54	- STL
60	55	- OBJ
	56	- PLY
	57	- JSON (for WebGl, via https://github.com/acgessler/assimp2json)
61	58
62	59	See [the full list here](http://assimp.sourceforge.net/main_features_formats.html).
63	60
64	61
65	62
66		#### 1.2 Repository structure ####
	63	#### Repository structure ####
67	64
68	65
69	66	Open Asset Import Library is implemented in C++ (but provides both a C and a

73	70	/code Source code
74	71	/contrib Third-party libraries
75	72	/doc Documentation (doxysource and pre-compiled docs)
76		/include Public header C and C++ header files.
77		/lib Static library location for Windows.
78		/obj Object file location for Windows.
79		/port Ports to other languages and scripts to maintain those.
80		/test Unit- and regression tests, test suite of models.
81		/tools Tools (viewer, command line `assimp`).
	73	/include Public header C and C++ header files
	74	/lib Static library location for Windows
	75	/obj Object file location for Windows
	76	/scripts Scripts used to generate the loading code for some formats
	77	/port Ports to other languages and scripts to maintain those.
	78	/test Unit- and regression tests, test suite of models
	79	/tools Tools (viewer, command line `assimp`)
82	80	/samples A small number of samples to illustrate possible
83		use cases for Assimp.
	81	use cases for Assimp
84	82	/workspaces Build enviroments for vc,xcode,... (deprecated,
85	83	CMake has superseeded all legacy build options!)
86	84
87	85
88	86
89		### 2. Build the library ###
	87	### Building ###
90	88
91	89
92		Take a look into the `INSTALL` file. Or fire up CMake with the usual steps.
	90	Take a look into the `INSTALL` file. Our build system is CMake, if you already used CMake before there is a good chance you know what to do.
93	91
94	92
95
96		### 3. Where to get help ###
	93	### Where to get help ###
97	94
98	95
99	96	For more information, visit [our website](http://assimp.sourceforge.net/). Or check out the `./doc`- folder, which contains the official documentation in HTML format.
100	97	(CHMs for Windows are included in some release packages and should be located right here in the root folder).
101	98
102		If the documentation doesn't solve your problems, try our forums at SF.net
	99	If the documentation doesn't solve your problems,
	100	[try our forums at SF.net](http://sourceforge.net/p/assimp/discussion/817654) or ask on
	101	[StackOverflow](http://stackoverflow.com/questions/tagged/assimp?sort=newest).
	102
	103	For development discussions, there is also a mailing list, _assimp-discussions_
	104	[(subscribe here)]( https://lists.sourceforge.net/lists/listinfo/assimp-discussions)
	105
	106	### Contributing ###
	107
	108	Contributions to assimp are highly appreciated. The easiest way to get involved is to submit
	109	a pull request with your changes against the main repository's `master` branch.
103	110
104	111
105		- [Open Discussion](http://sourceforge.net/projects/assimp/forums/forum/817653)
106		- [General Help](http://sourceforge.net/projects/assimp/forums/forum/817654)
	112	### License ###
107	113
	114	Our license is based on the modified, __3-clause BSD__-License, which is very liberal.
108	115
109		For development stuff, there is also a mailing list, _assimp-discussions_
110		[(subscribe here)]( https://lists.sourceforge.net/lists/listinfo/assimp-discussions)
	116	An _informal_ summary is: do whatever you want, but include Assimp's license text with your product -
	117	and don't sue us if our code doesn't work. Note that, unlike LGPLed code, you may link statically to Assimp.
	118	For the legal details, see the `LICENSE` file.
111	119
112
113
114		### 4. License ###
115
116		The license of the Asset Import Library is based on the modified, __3-clause BSD__-License, which is a very liberal license. An _informal_ summary is: do whatever you want, but include Assimp's license text with your product - and don't sue us if our code doesn't work.
117
118		Note that, unlike LGPLed code, you may link statically to Assimp.
119		For the formal details, see the `LICENSE` file.
120
121
122		------------------------------
123
124		(This repository is a mirror of the SVN repository located [here](https://assimp.svn.sourceforge.net/svnroot/assimp). Thanks to [klickverbot](https://github.com/klickverbot) for setting this up!)⏎

-2

~~Website.url~~ less more

0		[InternetShortcut]
1		URL=http://assimp.sourceforge.net

-0

assimp-config-version.cmake.in less more

9	9	set(PACKAGE_VERSION_COMPATIBLE 1)
10	10	endif()
11	11	endif()
	12	set( ASSIMP_STATIC_LIB "@ASSIMP_BUILD_STATIC_LIB@")

+16

-15

assimp-config.cmake.in less more

36	36	set( ASSIMP_CXX_FLAGS " -DBOOST_ALL_DYN_LINK -DBOOST_ALL_NO_LIB")
37	37	endif()
38	38	set( ASSIMP_LINK_FLAGS "" )
39		set( ASSIMP_LIBRARY_DIRS "${ASSIMP_ROOT_DIR}/@LIB_INSTALL_DIR@")
40		set( ASSIMP_INCLUDE_DIRS "${ASSIMP_ROOT_DIR}/@INCLUDE_INSTALL_DIR@")
	39	set( ASSIMP_LIBRARY_DIRS "${ASSIMP_ROOT_DIR}/@ASSIMP_LIB_INSTALL_DIR@")
	40	set( ASSIMP_INCLUDE_DIRS "${ASSIMP_ROOT_DIR}/@ASSIMP_INCLUDE_INSTALL_DIR@")
41	41	set( ASSIMP_LIBRARIES assimp${ASSIMP_LIBRARY_SUFFIX})
	42	if (CMAKE_BUILD_TYPE EQUAL "DEBUG")
	43	set( ASSIMP_LIBRARIES ${ASSIMP_LIBRARIES}D)
	44	endif (CMAKE_BUILD_TYPE EQUAL "DEBUG")
	45
	46	# search for the boost version assimp was compiled with
	47	#set(Boost_USE_MULTITHREAD ON)
	48	#set(Boost_USE_STATIC_LIBS OFF)
	49	#set(Boost_USE_STATIC_RUNTIME OFF)
	50	#find_package(Boost ${ASSIMP_Boost_VERSION} EXACT COMPONENTS thread date_time)
	51	#if(Boost_VERSION AND NOT "${Boost_VERSION}" STREQUAL "0")
	52	# set( ASSIMP_INCLUDE_DIRS "${ASSIMP_INCLUDE_DIRS}" ${Boost_INCLUDE_DIRS})
	53	#else(Boost_VERSION AND NOT "${Boost_VERSION}" STREQUAL "0")
	54	# message(WARNING "Failed to find Boost ${ASSIMP_Boost_VERSION} necessary for assimp")
	55	#endif(Boost_VERSION AND NOT "${Boost_VERSION}" STREQUAL "0")
42	56
43	57	# the boost version assimp was compiled with
44	58	set( ASSIMP_Boost_VERSION "@Boost_MAJOR_VERSION@.@Boost_MINOR_VERSION@")
45
46		if( WIN32 )
47		# search for the boost version assimp was compiled with
48		set(Boost_USE_MULTITHREAD ON)
49		set(Boost_USE_STATIC_LIBS OFF)
50		set(Boost_USE_STATIC_RUNTIME OFF)
51		find_package(Boost ${ASSIMP_Boost_VERSION} EXACT COMPONENTS thread date_time)
52		if(Boost_VERSION AND NOT "${Boost_VERSION}" STREQUAL "0")
53		set( ASSIMP_INCLUDE_DIRS "${ASSIMP_INCLUDE_DIRS}" ${Boost_INCLUDE_DIRS})
54		else(Boost_VERSION AND NOT "${Boost_VERSION}" STREQUAL "0")
55		message(WARNING "Failed to find Boost ${ASSIMP_Boost_VERSION} necessary for assimp")
56		endif(Boost_VERSION AND NOT "${Boost_VERSION}" STREQUAL "0")
57		endif( WIN32 )
58	59
59	60	# for compatibility wiht pkg-config
60	61	set(ASSIMP_CFLAGS_OTHER "${ASSIMP_CXX_FLAGS}")

-4

assimp.pc.in less more

0	0	prefix=@CMAKE_INSTALL_PREFIX@
1		exec_prefix=@CMAKE_INSTALL_PREFIX@/@BIN_INSTALL_DIR@
2		libdir=@CMAKE_INSTALL_PREFIX@/@LIB_INSTALL_DIR@
3		includedir=@CMAKE_INSTALL_PREFIX@/@INCLUDE_INSTALL_DIR@/assimp
	1	exec_prefix=@CMAKE_INSTALL_PREFIX@/@ASSIMP_BIN_INSTALL_DIR@
	2	libdir=@CMAKE_INSTALL_PREFIX@/@ASSIMP_LIB_INSTALL_DIR@
	3	includedir=@CMAKE_INSTALL_PREFIX@/@ASSIMP_INCLUDE_INSTALL_DIR@/assimp
4	4
5	5	Name: @CMAKE_PROJECT_NAME@
6	6	Description: Import various well-known 3D model formats in an uniform manner.
7	7	Version: @PROJECT_VERSION@
8	8	Libs: -L${libdir} -lassimp@ASSIMP_LIBRARY_SUFFIX@
9		Cflags: -I${includedir}
	9	Cflags: -I${includedir}

+100

-0

cmake-modules/FindDirectX.cmake less more

	0	#-------------------------------------------------------------------
	1	# This file is part of the CMake build system for OGRE
	2	# (Object-oriented Graphics Rendering Engine)
	3	# For the latest info, see http://www.ogre3d.org/
	4	#
	5	# The contents of this file are placed in the public domain. Feel
	6	# free to make use of it in any way you like.
	7	#-------------------------------------------------------------------
	8
	9	# -----------------------------------------------------------------------------
	10	# Find DirectX SDK
	11	# Define:
	12	# DirectX_FOUND
	13	# DirectX_INCLUDE_DIR
	14	# DirectX_LIBRARY
	15	# DirectX_ROOT_DIR
	16
	17	if(WIN32) # The only platform it makes sense to check for DirectX SDK
	18	include(FindPkgMacros)
	19	findpkg_begin(DirectX)
	20
	21	# Get path, convert backslashes as ${ENV_DXSDK_DIR}
	22	getenv_path(DXSDK_DIR)
	23	getenv_path(DIRECTX_HOME)
	24	getenv_path(DIRECTX_ROOT)
	25	getenv_path(DIRECTX_BASE)
	26
	27	# construct search paths
	28	set(DirectX_PREFIX_PATH
	29	"${DXSDK_DIR}" "${ENV_DXSDK_DIR}"
	30	"${DIRECTX_HOME}" "${ENV_DIRECTX_HOME}"
	31	"${DIRECTX_ROOT}" "${ENV_DIRECTX_ROOT}"
	32	"${DIRECTX_BASE}" "${ENV_DIRECTX_BASE}"
	33	"C:/apps_x86/Microsoft DirectX SDK*"
	34	"C:/Program Files (x86)/Microsoft DirectX SDK*"
	35	"C:/apps/Microsoft DirectX SDK*"
	36	"C:/Program Files/Microsoft DirectX SDK*"
	37	"$ENV{ProgramFiles}/Microsoft DirectX SDK*"
	38	)
	39	create_search_paths(DirectX)
	40	# redo search if prefix path changed
	41	clear_if_changed(DirectX_PREFIX_PATH
	42	DirectX_LIBRARY
	43	DirectX_INCLUDE_DIR
	44	)
	45
	46	find_path(DirectX_INCLUDE_DIR NAMES d3d9.h HINTS ${DirectX_INC_SEARCH_PATH})
	47	# dlls are in DirectX_ROOT_DIR/Developer Runtime/x64\|x86
	48	# lib files are in DirectX_ROOT_DIR/Lib/x64\|x86
	49	if(CMAKE_CL_64)
	50	set(DirectX_LIBPATH_SUFFIX "x64")
	51	else(CMAKE_CL_64)
	52	set(DirectX_LIBPATH_SUFFIX "x86")
	53	endif(CMAKE_CL_64)
	54	find_library(DirectX_LIBRARY NAMES d3d9 HINTS ${DirectX_LIB_SEARCH_PATH} PATH_SUFFIXES ${DirectX_LIBPATH_SUFFIX})
	55	find_library(DirectX_D3DX9_LIBRARY NAMES d3dx9 HINTS ${DirectX_LIB_SEARCH_PATH} PATH_SUFFIXES ${DirectX_LIBPATH_SUFFIX})
	56	find_library(DirectX_DXERR_LIBRARY NAMES DxErr HINTS ${DirectX_LIB_SEARCH_PATH} PATH_SUFFIXES ${DirectX_LIBPATH_SUFFIX})
	57	find_library(DirectX_DXGUID_LIBRARY NAMES dxguid HINTS ${DirectX_LIB_SEARCH_PATH} PATH_SUFFIXES ${DirectX_LIBPATH_SUFFIX})
	58
	59
	60	# look for dxgi (needed by both 10 and 11)
	61	find_library(DirectX_DXGI_LIBRARY NAMES dxgi HINTS ${DirectX_LIB_SEARCH_PATH} PATH_SUFFIXES ${DirectX_LIBPATH_SUFFIX})
	62
	63	# look for d3dcompiler (needed by 11)
	64	find_library(DirectX_D3DCOMPILER_LIBRARY NAMES d3dcompiler HINTS ${DirectX_LIB_SEARCH_PATH} PATH_SUFFIXES ${DirectX_LIBPATH_SUFFIX})
	65
	66	findpkg_finish(DirectX)
	67	set(DirectX_LIBRARIES ${DirectX_LIBRARIES}
	68	${DirectX_D3DX9_LIBRARY}
	69	${DirectX_DXERR_LIBRARY}
	70	${DirectX_DXGUID_LIBRARY}
	71	)
	72
	73	mark_as_advanced(DirectX_D3DX9_LIBRARY DirectX_DXERR_LIBRARY DirectX_DXGUID_LIBRARY
	74	DirectX_DXGI_LIBRARY DirectX_D3DCOMPILER_LIBRARY)
	75
	76
	77	# look for D3D11 components
	78	if (DirectX_FOUND)
	79	find_path(DirectX_D3D11_INCLUDE_DIR NAMES D3D11Shader.h HINTS ${DirectX_INC_SEARCH_PATH})
	80	get_filename_component(DirectX_LIBRARY_DIR "${DirectX_LIBRARY}" PATH)
	81	message(STATUS "DX lib dir: ${DirectX_LIBRARY_DIR}")
	82	find_library(DirectX_D3D11_LIBRARY NAMES d3d11 HINTS ${DirectX_LIB_SEARCH_PATH} PATH_SUFFIXES ${DirectX_LIBPATH_SUFFIX})
	83	find_library(DirectX_D3DX11_LIBRARY NAMES d3dx11 HINTS ${DirectX_LIB_SEARCH_PATH} PATH_SUFFIXES ${DirectX_LIBPATH_SUFFIX})
	84	if (DirectX_D3D11_INCLUDE_DIR AND DirectX_D3D11_LIBRARY)
	85	set(DirectX_D3D11_FOUND TRUE)
	86	set(DirectX_D3D11_INCLUDE_DIR ${DirectX_D3D11_INCLUDE_DIR})
	87	set(DirectX_D3D11_LIBRARIES ${DirectX_D3D11_LIBRARIES}
	88	${DirectX_D3D11_LIBRARY}
	89	${DirectX_D3DX11_LIBRARY}
	90	${DirectX_DXGI_LIBRARY}
	91	${DirectX_DXERR_LIBRARY}
	92	${DirectX_DXGUID_LIBRARY}
	93	${DirectX_D3DCOMPILER_LIBRARY}
	94	)
	95	endif ()
	96	mark_as_advanced(DirectX_D3D11_INCLUDE_DIR DirectX_D3D11_LIBRARY DirectX_D3DX11_LIBRARY)
	97	endif ()
	98
	99	endif(WIN32)

+142

-0

cmake-modules/FindPkgMacros.cmake less more

	0	#-------------------------------------------------------------------
	1	# This file is part of the CMake build system for OGRE
	2	# (Object-oriented Graphics Rendering Engine)
	3	# For the latest info, see http://www.ogre3d.org/
	4	#
	5	# The contents of this file are placed in the public domain. Feel
	6	# free to make use of it in any way you like.
	7	#-------------------------------------------------------------------
	8
	9	##################################################################
	10	# Provides some common functionality for the FindPackage modules
	11	##################################################################
	12
	13	# Begin processing of package
	14	macro(findpkg_begin PREFIX)
	15	if (NOT ${PREFIX}_FIND_QUIETLY)
	16	message(STATUS "Looking for ${PREFIX}...")
	17	endif ()
	18	endmacro(findpkg_begin)
	19
	20	# Display a status message unless FIND_QUIETLY is set
	21	macro(pkg_message PREFIX)
	22	if (NOT ${PREFIX}_FIND_QUIETLY)
	23	message(STATUS ${ARGN})
	24	endif ()
	25	endmacro(pkg_message)
	26
	27	# Get environment variable, define it as ENV_$var and make sure backslashes are converted to forward slashes
	28	macro(getenv_path VAR)
	29	set(ENV_${VAR} $ENV{${VAR}})
	30	# replace won't work if var is blank
	31	if (ENV_${VAR})
	32	string( REGEX REPLACE "\\\\" "/" ENV_${VAR} ${ENV_${VAR}} )
	33	endif ()
	34	endmacro(getenv_path)
	35
	36	# Construct search paths for includes and libraries from a PREFIX_PATH
	37	macro(create_search_paths PREFIX)
	38	foreach(dir ${${PREFIX}_PREFIX_PATH})
	39	set(${PREFIX}_INC_SEARCH_PATH ${${PREFIX}_INC_SEARCH_PATH}
	40	${dir}/include ${dir}/include/${PREFIX} ${dir}/Headers)
	41	set(${PREFIX}_LIB_SEARCH_PATH ${${PREFIX}_LIB_SEARCH_PATH}
	42	${dir}/lib ${dir}/lib/${PREFIX} ${dir}/Libs)
	43	endforeach(dir)
	44	set(${PREFIX}_FRAMEWORK_SEARCH_PATH ${${PREFIX}_PREFIX_PATH})
	45	endmacro(create_search_paths)
	46
	47	# clear cache variables if a certain variable changed
	48	macro(clear_if_changed TESTVAR)
	49	# test against internal check variable
	50	if (NOT "${${TESTVAR}}" STREQUAL "${${TESTVAR}_INT_CHECK}")
	51	message(STATUS "${TESTVAR} changed.")
	52	foreach(var ${ARGN})
	53	set(${var} "NOTFOUND" CACHE STRING "x" FORCE)
	54	endforeach(var)
	55	endif ()
	56	set(${TESTVAR}_INT_CHECK ${${TESTVAR}} CACHE INTERNAL "x" FORCE)
	57	endmacro(clear_if_changed)
	58
	59	# Try to get some hints from pkg-config, if available
	60	macro(use_pkgconfig PREFIX PKGNAME)
	61	find_package(PkgConfig)
	62	if (PKG_CONFIG_FOUND)
	63	pkg_check_modules(${PREFIX} ${PKGNAME})
	64	endif ()
	65	endmacro (use_pkgconfig)
	66
	67	# Couple a set of release AND debug libraries (or frameworks)
	68	macro(make_library_set PREFIX)
	69	if (${PREFIX}_FWK)
	70	set(${PREFIX} ${${PREFIX}_FWK})
	71	elseif (${PREFIX}_REL AND ${PREFIX}_DBG)
	72	set(${PREFIX} optimized ${${PREFIX}_REL} debug ${${PREFIX}_DBG})
	73	elseif (${PREFIX}_REL)
	74	set(${PREFIX} ${${PREFIX}_REL})
	75	elseif (${PREFIX}_DBG)
	76	set(${PREFIX} ${${PREFIX}_DBG})
	77	endif ()
	78	endmacro(make_library_set)
	79
	80	# Generate debug names from given release names
	81	macro(get_debug_names PREFIX)
	82	foreach(i ${${PREFIX}})
	83	set(${PREFIX}_DBG ${${PREFIX}_DBG} ${i}d ${i}D ${i}_d ${i}_D ${i}_debug ${i})
	84	endforeach(i)
	85	endmacro(get_debug_names)
	86
	87	# Add the parent dir from DIR to VAR
	88	macro(add_parent_dir VAR DIR)
	89	get_filename_component(${DIR}_TEMP "${${DIR}}/.." ABSOLUTE)
	90	set(${VAR} ${${VAR}} ${${DIR}_TEMP})
	91	endmacro(add_parent_dir)
	92
	93	# Do the final processing for the package find.
	94	macro(findpkg_finish PREFIX)
	95	# skip if already processed during this run
	96	if (NOT ${PREFIX}_FOUND)
	97	if (${PREFIX}_INCLUDE_DIR AND ${PREFIX}_LIBRARY)
	98	set(${PREFIX}_FOUND TRUE)
	99	set(${PREFIX}_INCLUDE_DIRS ${${PREFIX}_INCLUDE_DIR})
	100	set(${PREFIX}_LIBRARIES ${${PREFIX}_LIBRARY})
	101	if (NOT ${PREFIX}_FIND_QUIETLY)
	102	message(STATUS "Found ${PREFIX}: ${${PREFIX}_LIBRARIES}")
	103	endif ()
	104	else ()
	105	if (NOT ${PREFIX}_FIND_QUIETLY)
	106	message(STATUS "Could not locate ${PREFIX}")
	107	endif ()
	108	if (${PREFIX}_FIND_REQUIRED)
	109	message(FATAL_ERROR "Required library ${PREFIX} not found! Install the library (including dev packages) and try again. If the library is already installed, set the missing variables manually in cmake.")
	110	endif ()
	111	endif ()
	112
	113	mark_as_advanced(${PREFIX}_INCLUDE_DIR ${PREFIX}_LIBRARY ${PREFIX}_LIBRARY_REL ${PREFIX}_LIBRARY_DBG ${PREFIX}_LIBRARY_FWK)
	114	endif ()
	115	endmacro(findpkg_finish)
	116
	117
	118	# Slightly customised framework finder
	119	MACRO(findpkg_framework fwk)
	120	IF(APPLE)
	121	SET(${fwk}_FRAMEWORK_PATH
	122	${${fwk}_FRAMEWORK_SEARCH_PATH}
	123	${CMAKE_FRAMEWORK_PATH}
	124	~/Library/Frameworks
	125	/Library/Frameworks
	126	/System/Library/Frameworks
	127	/Network/Library/Frameworks
	128	/Developer/Platforms/iPhoneOS.platform/Developer/SDKs/iPhoneOS3.0.sdk/System/Library/Frameworks/
	129	)
	130	FOREACH(dir ${${fwk}_FRAMEWORK_PATH})
	131	SET(fwkpath ${dir}/${fwk}.framework)
	132	IF(EXISTS ${fwkpath})
	133	SET(${fwk}_FRAMEWORK_INCLUDES ${${fwk}_FRAMEWORK_INCLUDES}
	134	${fwkpath}/Headers ${fwkpath}/PrivateHeaders)
	135	if (NOT ${fwk}_LIBRARY_FWK)
	136	SET(${fwk}_LIBRARY_FWK "-framework ${fwk}")
	137	endif ()
	138	ENDIF(EXISTS ${fwkpath})
	139	ENDFOREACH(dir)
	140	ENDIF(APPLE)
	141	ENDMACRO(findpkg_framework)

+48

-0

cmake-modules/FindZLIB.cmake less more

	0	#-------------------------------------------------------------------
	1	# This file is part of the CMake build system for OGRE
	2	# (Object-oriented Graphics Rendering Engine)
	3	# For the latest info, see http://www.ogre3d.org/
	4	#
	5	# The contents of this file are placed in the public domain. Feel
	6	# free to make use of it in any way you like.
	7	#-------------------------------------------------------------------
	8
	9	# - Try to find ZLIB
	10	# Once done, this will define
	11	#
	12	# ZLIB_FOUND - system has ZLIB
	13	# ZLIB_INCLUDE_DIRS - the ZLIB include directories
	14	# ZLIB_LIBRARIES - link these to use ZLIB
	15
	16	include(FindPkgMacros)
	17	findpkg_begin(ZLIB)
	18
	19	# Get path, convert backslashes as ${ENV_${var}}
	20	getenv_path(ZLIB_HOME)
	21
	22	# construct search paths
	23	set(ZLIB_PREFIX_PATH ${ZLIB_HOME} ${ENV_ZLIB_HOME})
	24	create_search_paths(ZLIB)
	25	# redo search if prefix path changed
	26	clear_if_changed(ZLIB_PREFIX_PATH
	27	ZLIB_LIBRARY_FWK
	28	ZLIB_LIBRARY_REL
	29	ZLIB_LIBRARY_DBG
	30	ZLIB_INCLUDE_DIR
	31	)
	32
	33	set(ZLIB_LIBRARY_NAMES z zlib zdll)
	34	get_debug_names(ZLIB_LIBRARY_NAMES)
	35
	36	use_pkgconfig(ZLIB_PKGC zzip-zlib-config)
	37
	38	findpkg_framework(ZLIB)
	39
	40	find_path(ZLIB_INCLUDE_DIR NAMES zlib.h HINTS ${ZLIB_INC_SEARCH_PATH} ${ZLIB_PKGC_INCLUDE_DIRS})
	41	find_library(ZLIB_LIBRARY_REL NAMES ${ZLIB_LIBRARY_NAMES} HINTS ${ZLIB_LIB_SEARCH_PATH} ${ZLIB_PKGC_LIBRARY_DIRS} PATH_SUFFIXES "" release relwithdebinfo minsizerel)
	42	find_library(ZLIB_LIBRARY_DBG NAMES ${ZLIB_LIBRARY_NAMES_DBG} HINTS ${ZLIB_LIB_SEARCH_PATH} ${ZLIB_PKGC_LIBRARY_DIRS} PATH_SUFFIXES "" debug)
	43
	44	make_library_set(ZLIB_LIBRARY)
	45
	46	findpkg_finish(ZLIB)
	47

+25

-0

cmake-modules/Findassimp.cmake less more

	0	FIND_PATH(
	1	assimp_INCLUDE_DIRS
	2	NAMES postprocess.h scene.h version.h config.h cimport.h
	3	PATHS /usr/local/include/
	4	)
	5
	6	FIND_LIBRARY(
	7	assimp_LIBRARIES
	8	NAMES assimp
	9	PATHS /usr/local/lib/
	10	)
	11
	12	IF (assimp_INCLUDE_DIRS AND assimp_LIBRARIES)
	13	SET(assimp_FOUND TRUE)
	14	ENDIF (assimp_INCLUDE_DIRS AND assimp_LIBRARIES)
	15
	16	IF (assimp_FOUND)
	17	IF (NOT assimp_FIND_QUIETLY)
	18	MESSAGE(STATUS "Found asset importer library: ${assimp_LIBRARIES}")
	19	ENDIF (NOT assimp_FIND_QUIETLY)
	20	ELSE (assimp_FOUND)
	21	IF (assimp_FIND_REQUIRED)
	22	MESSAGE(FATAL_ERROR "Could not find asset importer library")
	23	ENDIF (assimp_FIND_REQUIRED)
	24	ENDIF (assimp_FOUND)

+25

-0

cmake-modules/PrecompiledHeader.cmake less more

	0	MACRO(ADD_MSVC_PRECOMPILED_HEADER PrecompiledHeader PrecompiledSource SourcesVar)
	1	IF(MSVC)
	2	GET_FILENAME_COMPONENT(PrecompiledBasename ${PrecompiledHeader} NAME_WE)
	3	SET(PrecompiledBinary "${CMAKE_CFG_INTDIR}/${PrecompiledBasename}.pch")
	4	SET(Sources ${${SourcesVar}})
	5
	6	SET_SOURCE_FILES_PROPERTIES(${PrecompiledSource}
	7	PROPERTIES COMPILE_FLAGS "/Yc\"${PrecompiledHeader}\" /Fp\"${PrecompiledBinary}\""
	8	OBJECT_OUTPUTS "${PrecompiledBinary}")
	9
	10	# Do not consider .c files
	11	foreach(fname ${Sources})
	12	GET_FILENAME_COMPONENT(fext ${fname} EXT)
	13	if(fext STREQUAL ".cpp")
	14	SET_SOURCE_FILES_PROPERTIES(${fname}
	15	PROPERTIES COMPILE_FLAGS "/Yu\"${PrecompiledBinary}\" /FI\"${PrecompiledBinary}\" /Fp\"${PrecompiledBinary}\""
	16	OBJECT_DEPENDS "${PrecompiledBinary}")
	17	endif(fext STREQUAL ".cpp")
	18	endforeach(fname)
	19
	20	ENDIF(MSVC)
	21	# Add precompiled header to SourcesVar
	22	LIST(APPEND ${SourcesVar} ${PrecompiledSource})
	23
	24	ENDMACRO(ADD_MSVC_PRECOMPILED_HEADER)⏎

+12

-26

cmake-modules/cmake_uninstall.cmake.in less more

0	0	IF(NOT EXISTS "@CMAKE_CURRENT_BINARY_DIR@/install_manifest.txt")
1		MESSAGE(FATAL_ERROR "Cannot find install manifest: \"@CMAKE_CURRENT_BINARY_DIR@/install_manifest.txt\"")
2		ENDIF()
	1	MESSAGE(FATAL_ERROR "Cannot find install manifest: \"@CMAKE_CURRENT_BINARY_DIR@/install_manifest.txt\"")
	2	ENDIF(NOT EXISTS "@CMAKE_CURRENT_BINARY_DIR@/install_manifest.txt")
3	3
4	4	FILE(READ "@CMAKE_CURRENT_BINARY_DIR@/install_manifest.txt" files)
5	5	STRING(REGEX REPLACE "\n" ";" files "${files}")
6
7	6	FOREACH(file ${files})
8		MESSAGE(STATUS "Uninstalling \"${file}\"")
9		IF(EXISTS "${file}")
10		EXECUTE_PROCESS(
11		COMMAND @CMAKE_COMMAND@ -E remove "$ENV{DESTDIR}${file}"
12		OUTPUT_VARIABLE rm_out
13		RESULT_VARIABLE rm_retval
14		)
15		IF(NOT "${rm_retval}" STREQUAL 0)
16		MESSAGE(FATAL_ERROR "Problem when removing \"${file}\"")
17		ENDIF()
18		ELSEIF(IS_SYMLINK "${file}")
19		EXEC_PROGRAM(
20		"@CMAKE_COMMAND@" ARGS "-E remove \"${file}\""
21		OUTPUT_VARIABLE rm_out
22		RETURN_VALUE rm_retval
23		)
24		IF(NOT "${rm_retval}" STREQUAL 0)
25		MESSAGE(FATAL_ERROR "Problem when removing \"${file}\"")
26		ENDIF()
27		ELSE()
28		MESSAGE(STATUS "File \"${file}\" does not exist.")
29		ENDIF()
30		ENDFOREACH()
	7	MESSAGE(STATUS "Uninstalling \"$ENV{DESTDIR}${file}\"")
	8	EXEC_PROGRAM(
	9	"@CMAKE_COMMAND@" ARGS "-E remove \"$ENV{DESTDIR}${file}\""
	10	OUTPUT_VARIABLE rm_out
	11	RETURN_VALUE rm_retval
	12	)
	13	IF(NOT "${rm_retval}" STREQUAL 0)
	14	MESSAGE(FATAL_ERROR "Problem when removing \"$ENV{DESTDIR}${file}\"")
	15	ENDIF(NOT "${rm_retval}" STREQUAL 0)
	16	ENDFOREACH(file)

+50

-30

code/3DSConverter.cpp less more

466	466	const unsigned int iIndex = iArray[i];
467	467	aiMesh* const mesh = pcSOut->mMeshes[iIndex];
468	468
469		// Transform the vertices back into their local space
470		// fixme: consider computing normals after this, so we don't need to transform them
471		const aiVector3D* const pvEnd = mesh->mVertices+mesh->mNumVertices;
472		aiVector3D* pvCurrent = mesh->mVertices, *t2 = mesh->mNormals;
473
474		for (;pvCurrent != pvEnd;++pvCurrent,++t2) {
475		pvCurrent = mInv (*pvCurrent);
476		t2 = mInvTransposed (*t2);
477		}
478
479		// Handle negative transformation matrix determinant -> invert vertex x
480		if (imesh->mMat.Determinant() < 0.0f)
481		{
482		/* we must have normals */
483		for (pvCurrent = mesh->mVertices,t2 = mesh->mNormals;pvCurrent != pvEnd;++pvCurrent,++t2) {
484		pvCurrent->x *= -1.f;
485		t2->x *= -1.f;
	469	if (mesh->mColors[1] == NULL)
	470	{
	471	// Transform the vertices back into their local space
	472	// fixme: consider computing normals after this, so we don't need to transform them
	473	const aiVector3D* const pvEnd = mesh->mVertices + mesh->mNumVertices;
	474	aiVector3D* pvCurrent = mesh->mVertices, *t2 = mesh->mNormals;
	475
	476	for (; pvCurrent != pvEnd; ++pvCurrent, ++t2) {
	477	pvCurrent = mInv (*pvCurrent);
	478	t2 = mInvTransposed (*t2);
486	479	}
487		DefaultLogger::get()->info("3DS: Flipping mesh X-Axis");
488		}
489
490		// Handle pivot point
491		if(pivot.x \|\| pivot.y \|\| pivot.z)
492		{
493		for (pvCurrent = mesh->mVertices;pvCurrent != pvEnd;++pvCurrent) {
494		*pvCurrent -= pivot;
	480
	481	// Handle negative transformation matrix determinant -> invert vertex x
	482	if (imesh->mMat.Determinant() < 0.0f)
	483	{
	484	/* we must have normals */
	485	for (pvCurrent = mesh->mVertices, t2 = mesh->mNormals; pvCurrent != pvEnd; ++pvCurrent, ++t2) {
	486	pvCurrent->x *= -1.f;
	487	t2->x *= -1.f;
	488	}
	489	DefaultLogger::get()->info("3DS: Flipping mesh X-Axis");
495	490	}
496		}
	491
	492	// Handle pivot point
	493	if (pivot.x \|\| pivot.y \|\| pivot.z)
	494	{
	495	for (pvCurrent = mesh->mVertices; pvCurrent != pvEnd; ++pvCurrent) {
	496	*pvCurrent -= pivot;
	497	}
	498	}
	499
	500	mesh->mColors[1] = (aiColor4D*)1;
	501	}
	502	else
	503	mesh->mColors[1] = (aiColor4D*)1;
497	504
498	505	// Setup the mesh index
499	506	pcOut->mMeshes[i] = iIndex;

501	508	}
502	509
503	510	// Setup the name of the node
504		pcOut->mName.Set(pcIn->mName);
	511	// First instance keeps its name otherwise something might break, all others will be postfixed with their instance number
	512	if (pcIn->mInstanceNumber > 1)
	513	{
	514	char tmp[12];
	515	ASSIMP_itoa10(tmp, pcIn->mInstanceNumber);
	516	std::string tempStr = pcIn->mName + "_inst_";
	517	tempStr += tmp;
	518	pcOut->mName.Set(tempStr);
	519	}
	520	else
	521	pcOut->mName.Set(pcIn->mName);
505	522
506	523	// Now build the transformation matrix of the node
507	524	// ROTATION

706	723	if (0 == mRootNode->mChildren.size())
707	724	{
708	725	//////////////////////////////////////////////////////////////////////////////
709		// It seems the file is so fucked up that it has not even a hierarchy.
	726	// It seems the file is so messed up that it has not even a hierarchy.
710	727	// generate a flat hiearachy which looks like this:
711	728	//
712	729	// ROOT_NODE

783	800	AddNodeToGraph(pcOut, pcOut->mRootNode, mRootNode,m);
784	801	}
785	802
786		// We used the first vertex color set to store some emporary values so we need to cleanup here
787		for (unsigned int a = 0; a < pcOut->mNumMeshes;++a)
	803	// We used the first and second vertex color set to store some temporary values so we need to cleanup here
	804	for (unsigned int a = 0; a < pcOut->mNumMeshes; ++a)
	805	{
788	806	pcOut->mMeshes[a]->mColors[0] = NULL;
	807	pcOut->mMeshes[a]->mColors[1] = NULL;
	808	}
789	809
790	810	pcOut->mRootNode->mTransformation = aiMatrix4x4(
791	811	1.f,0.f,0.f,0.f,

-0

code/3DSHelper.h less more

480	480
481	481	: mHierarchyPos (0)
482	482	, mHierarchyIndex (0)
	483	, mInstanceCount (1)
483	484
484	485	{
485	486	static int iCnt = 0;

509	510	//! Name of the node
510	511	std::string mName;
511	512
	513	//! InstanceNumber of the node
	514	int32_t mInstanceNumber;
	515
512	516	//! Dummy nodes: real name to be combined with the $$$DUMMY
513	517	std::string mDummyName;
514	518

537	541
538	542	//! Pivot position loaded from the file
539	543	aiVector3D vPivot;
	544
	545	//instance count, will be kept only for the first node
	546	int32_t mInstanceCount;
540	547
541	548	//! Add a child node, setup the right parent node for it
542	549	//! \param pc Node to be 'adopted'

+15

-5

code/3DSLoader.cpp less more

78	78	Discreet3DS::Chunk chunk; \
79	79	ReadChunk(&chunk); \
80	80	int chunkSize = chunk.Size-sizeof(Discreet3DS::Chunk); \
	81	if(chunkSize <= 0) \
	82	continue; \
81	83	const int oldReadLimit = stream->GetReadLimit(); \
82	84	stream->SetReadLimit(stream->GetCurrentPos() + chunkSize); \
83	85

656	658	// Now find out whether we have this node already (target animation channels
657	659	// are stored with a separate object ID)
658	660	D3DS::Node* pcNode = FindNode(mRootNode,name);
659		if (pcNode)
660		{
661		// Make this node the current node
662		mCurrentNode = pcNode;
663		break;
	661	int instanceNumber = 1;
	662
	663	if ( pcNode)
	664	{
	665	// if the source is not a CHUNK_TRACKINFO block it wont be an object instance
	666	if (parent != Discreet3DS::CHUNK_TRACKINFO)
	667	{
	668	mCurrentNode = pcNode;
	669	break;
	670	}
	671	pcNode->mInstanceCount++;
	672	instanceNumber = pcNode->mInstanceCount;
664	673	}
665	674	pcNode = new D3DS::Node();
666	675	pcNode->mName = name;
	676	pcNode->mInstanceNumber = instanceNumber;
667	677
668	678	// There are two unknown values which we can safely ignore
669	679	stream->IncPtr(4);

-0

code/3DSLoader.h less more

47	47	#include "BaseImporter.h"
48	48	#include "../include/assimp/types.h"
49	49
	50	#ifndef ASSIMP_BUILD_NO_3DS_IMPORTER
	51
50	52	struct aiNode;
51	53	#include "3DSHelper.h"
52	54

270	272	bool bIsPrj;
271	273	};
272	274
	275	#endif // !! ASSIMP_BUILD_NO_3DS_IMPORTER
	276
273	277	} // end of namespace Assimp
274	278
275	279	#endif // AI_3DSIMPORTER_H_INC

-1

code/ASELoader.cpp less more

73	73	// ------------------------------------------------------------------------------------------------
74	74	// Constructor to be privately used by Importer
75	75	ASEImporter::ASEImporter()
	76	: noSkeletonMesh()
76	77	{}
77	78
78	79	// ------------------------------------------------------------------------------------------------

110	111	{
111	112	configRecomputeNormals = (pImp->GetPropertyInteger(
112	113	AI_CONFIG_IMPORT_ASE_RECONSTRUCT_NORMALS,1) ? true : false);
	114
	115	noSkeletonMesh = pImp->GetPropertyInteger(AI_CONFIG_IMPORT_NO_SKELETON_MESHES,0) != 0;
113	116	}
114	117
115	118	// ------------------------------------------------------------------------------------------------

243	246	// ------------------------------------------------------------------
244	247	if (!pScene->mNumMeshes) {
245	248	pScene->mFlags \|= AI_SCENE_FLAGS_INCOMPLETE;
246		SkeletonMeshBuilder skeleton(pScene);
	249	if (!noSkeletonMesh) {
	250	SkeletonMeshBuilder skeleton(pScene);
	251	}
247	252	}
248	253	}
249	254	// ------------------------------------------------------------------------------------------------

-0

code/ASELoader.h less more

196	196	/** Config options: Recompute the normals in every case - WA
197	197	for 3DS Max broken ASE normal export */
198	198	bool configRecomputeNormals;
	199	bool noSkeletonMesh;
199	200	};
200	201
201	202	} // end of namespace Assimp

-1

code/ASEParser.cpp less more

43	43	*/
44	44
45	45	#include "AssimpPCH.h"
	46	#ifndef ASSIMP_BUILD_NO_ASE_IMPORTER
46	47
47	48	// internal headers
48	49	#include "TextureTransform.h"

1565	1566	unsigned int iIndex = strtoul10(filePtr,&filePtr);
1566	1567	if (iIndex >= iNumBones)
1567	1568	{
	1569	LogWarning("Bone index is out of bounds");
1568	1570	continue;
1569		LogWarning("Bone index is out of bounds");
1570	1571	}
1571	1572	if (!ParseString(mesh.mBones[iIndex].mName,"*MESH_BONE_NAME"))
1572	1573	SkipToNextToken();

2147	2148	// parse the value
2148	2149	iOut = strtoul10(filePtr,&filePtr);
2149	2150	}
	2151
	2152	#endif // !! ASSIMP_BUILD_NO_BASE_IMPORTER

+22

-6

code/Assimp.cpp less more

49	49	#include "Importer.h"
50	50
51	51	// ------------------------------------------------------------------------------------------------
52		#ifdef AI_C_THREADSAFE
	52	#ifndef ASSIMP_BUILD_SINGLETHREADED
53	53	# include <boost/thread/thread.hpp>
54	54	# include <boost/thread/mutex.hpp>
55	55	#endif

86	86	}
87	87
88	88
89		#ifdef AI_C_THREADSAFE
	89	#ifndef ASSIMP_BUILD_SINGLETHREADED
90	90	/** Global mutex to manage the access to the logstream map */
91	91	static boost::mutex gLogStreamMutex;
92	92	#endif

103	103	}
104	104
105	105	~LogToCallbackRedirector() {
106		#ifdef AI_C_THREADSAFE
	106	#ifndef ASSIMP_BUILD_SINGLETHREADED
107	107	boost::mutex::scoped_lock lock(gLogStreamMutex);
108	108	#endif
109	109	// (HACK) Check whether the 'stream.user' pointer points to a

171	171	pimpl->mIntProperties = pp->ints;
172	172	pimpl->mFloatProperties = pp->floats;
173	173	pimpl->mStringProperties = pp->strings;
	174	pimpl->mMatrixProperties = pp->matrices;
174	175	}
175	176	// setup a custom IO system if necessary
176	177	if (pFS) {

229	230	pimpl->mIntProperties = pp->ints;
230	231	pimpl->mFloatProperties = pp->floats;
231	232	pimpl->mStringProperties = pp->strings;
	233	pimpl->mMatrixProperties = pp->matrices;
232	234	}
233	235
234	236	// and have it read the file from the memory buffer

336	338	{
337	339	ASSIMP_BEGIN_EXCEPTION_REGION();
338	340
339		#ifdef AI_C_THREADSAFE
	341	#ifndef ASSIMP_BUILD_SINGLETHREADED
340	342	boost::mutex::scoped_lock lock(gLogStreamMutex);
341	343	#endif
342	344

355	357	{
356	358	ASSIMP_BEGIN_EXCEPTION_REGION();
357	359
358		#ifdef AI_C_THREADSAFE
	360	#ifndef ASSIMP_BUILD_SINGLETHREADED
359	361	boost::mutex::scoped_lock lock(gLogStreamMutex);
360	362	#endif
361	363	// find the logstream associated with this data

380	382	ASSIMP_API void aiDetachAllLogStreams(void)
381	383	{
382	384	ASSIMP_BEGIN_EXCEPTION_REGION();
383		#ifdef AI_C_THREADSAFE
	385	#ifndef ASSIMP_BUILD_SINGLETHREADED
384	386	boost::mutex::scoped_lock lock(gLogStreamMutex);
385	387	#endif
386	388	for (LogStreamMap::iterator it = gActiveLogStreams.begin(); it != gActiveLogStreams.end(); ++it) {

504	506	}
505	507
506	508	// ------------------------------------------------------------------------------------------------
	509	// Importer::SetPropertyMatrix
	510	ASSIMP_API void aiSetImportPropertyMatrix(aiPropertyStore* p, const char* szName,
	511	const C_STRUCT aiMatrix4x4* mat)
	512	{
	513	if (!mat) {
	514	return;
	515	}
	516	ASSIMP_BEGIN_EXCEPTION_REGION();
	517	PropertyMap* pp = reinterpret_cast<PropertyMap*>(p);
	518	SetGenericProperty<aiMatrix4x4>(pp->matrices,szName,*mat,NULL);
	519	ASSIMP_END_EXCEPTION_REGION(void);
	520	}
	521
	522	// ------------------------------------------------------------------------------------------------
507	523	// Rotation matrix to quaternion
508	524	ASSIMP_API void aiCreateQuaternionFromMatrix(aiQuaternion* quat,const aiMatrix3x3* mat)
509	525	{

+12

-0

code/AssimpCExport.cpp less more

63	63	return Exporter().GetExportFormatDescription(pIndex);
64	64	}
65	65
	66
66	67	// ------------------------------------------------------------------------------------------------
67	68	ASSIMP_API void aiCopyScene(const aiScene* pIn, aiScene** pOut)
68	69	{

71	72	}
72	73
73	74	SceneCombiner::CopyScene(pOut,pIn,true);
	75	ScenePriv(*pOut)->mIsCopy = true;
74	76	}
	77
	78
	79	// ------------------------------------------------------------------------------------------------
	80	ASSIMP_API void aiFreeScene(const C_STRUCT aiScene* pIn)
	81	{
	82	// note: aiReleaseImport() is also able to delete scene copies, but in addition
	83	// it also handles scenes with import metadata.
	84	delete pIn;
	85	}
	86
75	87
76	88	// ------------------------------------------------------------------------------------------------
77	89	ASSIMP_API aiReturn aiExportScene( const aiScene* pScene, const char* pFormatId, const char* pFileName, unsigned int pPreprocessing )

+23

-20

code/AssimpPCH.cpp less more

2	2
3	3	#include "AssimpPCH.h"
4	4	#include "./../include/assimp/version.h"
	5
	6	static const unsigned int MajorVersion = 3;
	7	static const unsigned int MinorVersion = 1;
5	8
6	9	// --------------------------------------------------------------------------------
7	10	// Legal information string - dont't remove this.

24	27	// ------------------------------------------------------------------------------------------------
25	28	// Get Assimp minor version
26	29	ASSIMP_API unsigned int aiGetVersionMinor () {
27		return 0;
	30	return MinorVersion;
28	31	}
29	32
30	33	// ------------------------------------------------------------------------------------------------
31	34	// Get Assimp major version
32	35	ASSIMP_API unsigned int aiGetVersionMajor () {
33		return 3;
	36	return MajorVersion;
34	37	}
35	38
36	39	// ------------------------------------------------------------------------------------------------

59	62	}
60	63
61	64	// include current build revision, which is even updated from time to time -- :-)
62		#include "../revision.h"
	65	#include "revision.h"
63	66
64	67	// ------------------------------------------------------------------------------------------------
65	68	ASSIMP_API unsigned int aiGetVersionRevision ()
66	69	{
67		return SVNRevision;
	70	return GitVersion;
68	71	}
69	72
70	73	// ------------------------------------------------------------------------------------------------
71		aiScene::aiScene()
72		: mFlags()
73		, mRootNode()
74		, mNumMeshes()
75		, mMeshes()
76		, mNumMaterials()
77		, mMaterials()
78		, mNumAnimations()
79		, mAnimations()
80		, mNumTextures()
81		, mTextures()
82		, mNumLights()
83		, mLights()
84		, mNumCameras()
85		, mCameras()
	74	ASSIMP_API aiScene::aiScene()
	75	: mFlags(0)
	76	, mRootNode(NULL)
	77	, mNumMeshes(0)
	78	, mMeshes(NULL)
	79	, mNumMaterials(0)
	80	, mMaterials(NULL)
	81	, mNumAnimations(0)
	82	, mAnimations(NULL)
	83	, mNumTextures(0)
	84	, mTextures(NULL)
	85	, mNumLights(0)
	86	, mLights(NULL)
	87	, mNumCameras(0)
	88	, mCameras(NULL)
86	89	, mPrivate(new Assimp::ScenePrivateData())
87	90	{
88	91	}
89	92
90	93	// ------------------------------------------------------------------------------------------------
91		aiScene::~aiScene()
	94	ASSIMP_API aiScene::~aiScene()
92	95	{
93	96	// delete all sub-objects recursively
94	97	delete mRootNode;

-2

code/AssimpPCH.h less more

55	55
56	56	// Include our stdint.h replacement header for MSVC, take the global header for gcc/mingw
57	57	#if defined( _MSC_VER) && (_MSC_VER < 1600)
58		# include "pstdint.h"
	58	# include "../include/assimp/Compiler/pstdint.h"
59	59	#else
60	60	# include <stdint.h>
61	61	#endif

73	73
74	74	/* Helper macro to set a pointer to NULL in debug builds
75	75	*/
76		#if (defined _DEBUG)
	76	#if (defined ASSIMP_BUILD_DEBUG)
77	77	# define AI_DEBUG_INVALIDATE_PTR(x) x = NULL;
78	78	#else
79	79	# define AI_DEBUG_INVALIDATE_PTR(x)

+11

-2

code/BVHLoader.cpp less more

64	64	// ------------------------------------------------------------------------------------------------
65	65	// Constructor to be privately used by Importer
66	66	BVHLoader::BVHLoader()
	67	: noSkeletonMesh()
67	68	{}
68	69
69	70	// ------------------------------------------------------------------------------------------------

89	90	}
90	91
91	92	// ------------------------------------------------------------------------------------------------
	93	void BVHLoader::SetupProperties(const Importer* pImp)
	94	{
	95	noSkeletonMesh = pImp->GetPropertyInteger(AI_CONFIG_IMPORT_NO_SKELETON_MESHES,0) != 0;
	96	}
	97
	98	// ------------------------------------------------------------------------------------------------
92	99	// Loader meta information
93	100	const aiImporterDesc* BVHLoader::GetInfo () const
94	101	{

118	125	mLine = 1;
119	126	ReadStructure( pScene);
120	127
121		// build a dummy mesh for the skeleton so that we see something at least
122		SkeletonMeshBuilder meshBuilder( pScene);
	128	if (!noSkeletonMesh) {
	129	// build a dummy mesh for the skeleton so that we see something at least
	130	SkeletonMeshBuilder meshBuilder( pScene);
	131	}
123	132
124	133	// construct an animation from all the motion data we read
125	134	CreateAnimation( pScene);

-0

code/BVHLoader.h less more

93	93	* See BaseImporter::CanRead() for details. */
94	94	bool CanRead( const std::string& pFile, IOSystem* pIOHandler, bool cs) const;
95	95
	96	void SetupProperties(const Importer* pImp);
96	97	const aiImporterDesc* GetInfo () const;
97	98
98	99	protected:

158	159	/** basic Animation parameters */
159	160	float mAnimTickDuration;
160	161	unsigned int mAnimNumFrames;
	162
	163	bool noSkeletonMesh;
161	164	};
162	165
163	166	} // end of namespace Assimp

+39

-1

code/BaseImporter.cpp less more

379	379	}
380	380
381	381	// ------------------------------------------------------------------------------------------------
	382	// Convert to UTF8 data to ISO-8859-1
	383	void BaseImporter::ConvertUTF8toISO8859_1(std::string& data)
	384	{
	385	unsigned int size = data.size();
	386	unsigned int i = 0, j = 0;
	387
	388	while(i < size) {
	389	if((unsigned char) data[i] < 0x80) {
	390	data[j] = data[i];
	391	} else if(i < size - 1) {
	392	if((unsigned char) data[i] == 0xC2) {
	393	data[j] = data[++i];
	394	} else if((unsigned char) data[i] == 0xC3) {
	395	data[j] = ((unsigned char) data[++i] + 0x40);
	396	} else {
	397	std::stringstream stream;
	398
	399	stream << "UTF8 code " << std::hex << data[i] << data[i + 1] << " can not be converted into ISA-8859-1.";
	400
	401	DefaultLogger::get()->error(stream.str());
	402
	403	data[j++] = data[i++];
	404	data[j] = data[i];
	405	}
	406	} else {
	407	DefaultLogger::get()->error("UTF8 code but only one character remaining");
	408
	409	data[j] = data[i];
	410	}
	411
	412	i++; j++;
	413	}
	414
	415	data.resize(j);
	416	}
	417
	418	// ------------------------------------------------------------------------------------------------
382	419	void BaseImporter::TextFileToBuffer(IOStream* stream,
383	420	std::vector<char>& data)
384	421	{

532	569	for (std::list<LoadRequest>::iterator it = data->requests.begin();it != data->requests.end(); ++it) {
533	570	// force validation in debug builds
534	571	unsigned int pp = (*it).flags;
535		#ifdef _DEBUG
	572	#ifdef ASSIMP_BUILD_DEBUG
536	573	pp \|= aiProcess_ValidateDataStructure;
537	574	#endif
538	575	// setup config properties if necessary

540	577	pimpl->mFloatProperties = (*it).map.floats;
541	578	pimpl->mIntProperties = (*it).map.ints;
542	579	pimpl->mStringProperties = (*it).map.strings;
	580	pimpl->mMatrixProperties = (*it).map.matrices;
543	581
544	582	if (!DefaultLogger::isNullLogger())
545	583	{

+10

-1

code/BaseImporter.h less more

105	105	* imports the given file. ReadFile is not overridable, it just calls
106	106	* InternReadFile() and catches any ImportErrorException that might occur.
107	107	*/
108		class BaseImporter
	108	class ASSIMP_API BaseImporter
109	109	{
110	110	friend class Importer;
111	111

331	331	std::vector<char>& data);
332	332
333	333	// -------------------------------------------------------------------
	334	/** An utility for all text file loaders. It converts a file from our
	335	* UTF8 character set back to ISO-8859-1. Errors are reported, but ignored.
	336	*
	337	* @param data File buffer to be converted from UTF8 to ISO-8859-1. The buffer
	338	* is resized as appropriate. */
	339	static void ConvertUTF8toISO8859_1(
	340	std::string& data);
	341
	342	// -------------------------------------------------------------------
334	343	/** Utility for text file loaders which copies the contents of the
335	344	* file into a memory buffer and converts it to our UTF8
336	345	* representation.

+145

-0

code/Bitmap.cpp less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (assimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/** @file Bitmap.cpp
	42	* @brief Defines bitmap format helper for textures
	43	*
	44	* Used for file formats which embed their textures into the model file.
	45	*/
	46
	47	#include "AssimpPCH.h"
	48
	49	#include "Bitmap.h"
	50
	51	namespace Assimp {
	52
	53	void Bitmap::Save(aiTexture* texture, IOStream* file) {
	54	if(file != NULL) {
	55	Header header;
	56	DIB dib;
	57
	58	dib.size = DIB::dib_size;
	59	dib.width = texture->mWidth;
	60	dib.height = texture->mHeight;
	61	dib.planes = 1;
	62	dib.bits_per_pixel = 8 * mBytesPerPixel;
	63	dib.compression = 0;
	64	dib.image_size = (((dib.width * mBytesPerPixel) + 3) & 0x0000FFFC) * dib.height;
	65	dib.x_resolution = 0;
	66	dib.y_resolution = 0;
	67	dib.nb_colors = 0;
	68	dib.nb_important_colors = 0;
	69
	70	header.type = 0x4D42; // 'BM'
	71	header.offset = Header::header_size + DIB::dib_size;
	72	header.size = header.offset + dib.image_size;
	73	header.reserved1 = 0;
	74	header.reserved2 = 0;
	75
	76	WriteHeader(header, file);
	77	WriteDIB(dib, file);
	78	WriteData(texture, file);
	79	}
	80	}
	81
	82	template<typename T>
	83	inline std::size_t Copy(uint8_t* data, T& field) {
	84	std::memcpy(data, &AI_BE(field), sizeof(field)); return sizeof(field);
	85	}
	86
	87	void Bitmap::WriteHeader(Header& header, IOStream* file) {
	88	uint8_t data[Header::header_size];
	89
	90	std::size_t offset = 0;
	91
	92	offset += Copy(&data[offset], header.type);
	93	offset += Copy(&data[offset], header.size);
	94	offset += Copy(&data[offset], header.reserved1);
	95	offset += Copy(&data[offset], header.reserved2);
	96	offset += Copy(&data[offset], header.offset);
	97
	98	file->Write(data, Header::header_size, 1);
	99	}
	100
	101	void Bitmap::WriteDIB(DIB& dib, IOStream* file) {
	102	uint8_t data[DIB::dib_size];
	103
	104	std::size_t offset = 0;
	105
	106	offset += Copy(&data[offset], dib.size);
	107	offset += Copy(&data[offset], dib.width);
	108	offset += Copy(&data[offset], dib.height);
	109	offset += Copy(&data[offset], dib.planes);
	110	offset += Copy(&data[offset], dib.bits_per_pixel);
	111	offset += Copy(&data[offset], dib.compression);
	112	offset += Copy(&data[offset], dib.image_size);
	113	offset += Copy(&data[offset], dib.x_resolution);
	114	offset += Copy(&data[offset], dib.y_resolution);
	115	offset += Copy(&data[offset], dib.nb_colors);
	116	offset += Copy(&data[offset], dib.nb_important_colors);
	117
	118	file->Write(data, DIB::dib_size, 1);
	119	}
	120
	121	void Bitmap::WriteData(aiTexture* texture, IOStream* file) {
	122	static const std::size_t padding_offset = 4;
	123	static const uint8_t padding_data[padding_offset] = {0x0, 0x0, 0x0, 0x0};
	124
	125	unsigned int padding = (padding_offset - ((mBytesPerPixel * texture->mWidth) % padding_offset)) % padding_offset;
	126	uint8_t pixel[mBytesPerPixel];
	127
	128	for(std::size_t i = 0; i < texture->mHeight; ++i) {
	129	for(std::size_t j = 0; j < texture->mWidth; ++j) {
	130	const aiTexel& texel = texture->pcData[(texture->mHeight - i - 1) * texture->mWidth + j]; // Bitmap files are stored in bottom-up format
	131
	132	pixel[0] = texel.r;
	133	pixel[1] = texel.g;
	134	pixel[2] = texel.b;
	135	pixel[3] = texel.a;
	136
	137	file->Write(pixel, mBytesPerPixel, 1);
	138	}
	139
	140	file->Write(padding_data, padding, 1);
	141	}
	142	}
	143
	144	}

+139

-0

code/Bitmap.h less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (assimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/** @file Bitmap.h
	42	* @brief Defines bitmap format helper for textures
	43	*
	44	* Used for file formats which embed their textures into the model file.
	45	*/
	46
	47	#ifndef AI_BITMAP_H_INC
	48	#define AI_BITMAP_H_INC
	49
	50	namespace Assimp {
	51
	52	class Bitmap {
	53
	54	protected:
	55
	56	struct Header {
	57
	58	uint16_t type;
	59
	60	uint32_t size;
	61
	62	uint16_t reserved1;
	63
	64	uint16_t reserved2;
	65
	66	uint32_t offset;
	67
	68	// We define the struct size because sizeof(Header) might return a wrong result because of structure padding.
	69	// Moreover, we must use this ugly and error prone syntax because Visual Studio neither support constexpr or sizeof(name_of_field).
	70	static const std::size_t header_size =
	71	sizeof(uint16_t) + // type
	72	sizeof(uint32_t) + // size
	73	sizeof(uint16_t) + // reserved1
	74	sizeof(uint16_t) + // reserved2
	75	sizeof(uint32_t); // offset
	76
	77	};
	78
	79	struct DIB {
	80
	81	uint32_t size;
	82
	83	int32_t width;
	84
	85	int32_t height;
	86
	87	uint16_t planes;
	88
	89	uint16_t bits_per_pixel;
	90
	91	uint32_t compression;
	92
	93	uint32_t image_size;
	94
	95	int32_t x_resolution;
	96
	97	int32_t y_resolution;
	98
	99	uint32_t nb_colors;
	100
	101	uint32_t nb_important_colors;
	102
	103	// We define the struct size because sizeof(DIB) might return a wrong result because of structure padding.
	104	// Moreover, we must use this ugly and error prone syntax because Visual Studio neither support constexpr or sizeof(name_of_field).
	105	static const std::size_t dib_size =
	106	sizeof(uint32_t) + // size
	107	sizeof(int32_t) + // width
	108	sizeof(int32_t) + // height
	109	sizeof(uint16_t) + // planes
	110	sizeof(uint16_t) + // bits_per_pixel
	111	sizeof(uint32_t) + // compression
	112	sizeof(uint32_t) + // image_size
	113	sizeof(int32_t) + // x_resolution
	114	sizeof(int32_t) + // y_resolution
	115	sizeof(uint32_t) + // nb_colors
	116	sizeof(uint32_t); // nb_important_colors
	117
	118	};
	119
	120	static const std::size_t mBytesPerPixel = 4;
	121
	122	public:
	123
	124	static void Save(aiTexture* texture, IOStream* file);
	125
	126	protected:
	127
	128	static void WriteHeader(Header& header, IOStream* file);
	129
	130	static void WriteDIB(DIB& dib, IOStream* file);
	131
	132	static void WriteData(aiTexture* texture, IOStream* file);
	133
	134	};
	135
	136	}
	137
	138	#endif // AI_BITMAP_H_INC

+176

-0

code/BlenderBMesh.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2013, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file BlenderBMesh.cpp
	41	* @brief Conversion of Blender's new BMesh stuff
	42	*/
	43
	44	#include "AssimpPCH.h"
	45
	46	#ifndef ASSIMP_BUILD_NO_BLEND_IMPORTER
	47
	48	#include "BlenderDNA.h"
	49	#include "BlenderScene.h"
	50	#include "BlenderBMesh.h"
	51	#include "BlenderTessellator.h"
	52
	53	namespace Assimp
	54	{
	55	template< > const std::string LogFunctions< BlenderBMeshConverter >::log_prefix = "BLEND_BMESH: ";
	56	}
	57
	58	using namespace Assimp;
	59	using namespace Assimp::Blender;
	60	using namespace Assimp::Formatter;
	61
	62	// ------------------------------------------------------------------------------------------------
	63	BlenderBMeshConverter::BlenderBMeshConverter( const Mesh* mesh ):
	64	BMesh( mesh ),
	65	triMesh( NULL )
	66	{
	67	AssertValidMesh( );
	68	}
	69
	70	// ------------------------------------------------------------------------------------------------
	71	BlenderBMeshConverter::~BlenderBMeshConverter( )
	72	{
	73	DestroyTriMesh( );
	74	}
	75
	76	// ------------------------------------------------------------------------------------------------
	77	bool BlenderBMeshConverter::ContainsBMesh( ) const
	78	{
	79	// TODO - Should probably do some additional verification here
	80	return BMesh->totpoly && BMesh->totloop && BMesh->totvert;
	81	}
	82
	83	// ------------------------------------------------------------------------------------------------
	84	const Mesh* BlenderBMeshConverter::TriangulateBMesh( )
	85	{
	86	AssertValidMesh( );
	87	AssertValidSizes( );
	88	PrepareTriMesh( );
	89
	90	for ( int i = 0; i < BMesh->totpoly; ++i )
	91	{
	92	const MPoly& poly = BMesh->mpoly[ i ];
	93	ConvertPolyToFaces( poly );
	94	}
	95
	96	return triMesh;
	97	}
	98
	99	// ------------------------------------------------------------------------------------------------
	100	void BlenderBMeshConverter::AssertValidMesh( )
	101	{
	102	if ( !ContainsBMesh( ) )
	103	{
	104	ThrowException( "BlenderBMeshConverter requires a BMesh with \"polygons\" - please call BlenderBMeshConverter::ContainsBMesh to check this first" );
	105	}
	106	}
	107
	108	// ------------------------------------------------------------------------------------------------
	109	void BlenderBMeshConverter::AssertValidSizes( )
	110	{
	111	if ( BMesh->totpoly != static_cast<int>( BMesh->mpoly.size( ) ) )
	112	{
	113	ThrowException( "BMesh poly array has incorrect size" );
	114	}
	115	if ( BMesh->totloop != static_cast<int>( BMesh->mloop.size( ) ) )
	116	{
	117	ThrowException( "BMesh loop array has incorrect size" );
	118	}
	119	}
	120
	121	// ------------------------------------------------------------------------------------------------
	122	void BlenderBMeshConverter::PrepareTriMesh( )
	123	{
	124	if ( triMesh )
	125	{
	126	DestroyTriMesh( );
	127	}
	128
	129	triMesh = new Mesh( *BMesh );
	130	triMesh->totface = 0;
	131	triMesh->mface.clear( );
	132	}
	133
	134	// ------------------------------------------------------------------------------------------------
	135	void BlenderBMeshConverter::DestroyTriMesh( )
	136	{
	137	delete triMesh;
	138	triMesh = NULL;
	139	}
	140
	141	// ------------------------------------------------------------------------------------------------
	142	void BlenderBMeshConverter::ConvertPolyToFaces( const MPoly& poly )
	143	{
	144	const MLoop* polyLoop = &BMesh->mloop[ poly.loopstart ];
	145	if ( poly.totloop == 3 \|\| poly.totloop == 4 )
	146	{
	147	AddFace( polyLoop[ 0 ].v, polyLoop[ 1 ].v, polyLoop[ 2 ].v, poly.totloop == 4 ? polyLoop[ 3 ].v : 0 );
	148	}
	149	else if ( poly.totloop > 4 )
	150	{
	151	#if ASSIMP_BLEND_WITH_GLU_TESSELLATE
	152	BlenderTessellatorGL tessGL( *this );
	153	tessGL.Tessellate( polyLoop, poly.totloop, triMesh->mvert );
	154	#elif ASSIMP_BLEND_WITH_POLY_2_TRI
	155	BlenderTessellatorP2T tessP2T( *this );
	156	tessP2T.Tessellate( polyLoop, poly.totloop, triMesh->mvert );
	157	#endif
	158	}
	159	}
	160
	161	// ------------------------------------------------------------------------------------------------
	162	void BlenderBMeshConverter::AddFace( int v1, int v2, int v3, int v4 )
	163	{
	164	MFace face;
	165	face.v1 = v1;
	166	face.v2 = v2;
	167	face.v3 = v3;
	168	face.v4 = v4;
	169	// TODO - Work out how materials work
	170	face.mat_nr = 0;
	171	triMesh->mface.push_back( face );
	172	triMesh->totface = triMesh->mface.size( );
	173	}
	174
	175	#endif // ASSIMP_BUILD_NO_BLEND_IMPORTER

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	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2013, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file BlenderBMesh.h
	41	* @brief Conversion of Blender's new BMesh stuff
	42	*/
	43	#ifndef INCLUDED_AI_BLEND_BMESH_H
	44	#define INCLUDED_AI_BLEND_BMESH_H
	45
	46	#include "LogAux.h"
	47
	48	namespace Assimp
	49	{
	50	// TinyFormatter.h
	51	namespace Formatter
	52	{
	53	template < typename T,typename TR, typename A > class basic_formatter;
	54	typedef class basic_formatter< char, std::char_traits< char >, std::allocator< char > > format;
	55	}
	56
	57	// BlenderScene.h
	58	namespace Blender
	59	{
	60	struct Mesh;
	61	struct MPoly;
	62	struct MLoop;
	63	}
	64
	65	class BlenderBMeshConverter: public LogFunctions< BlenderBMeshConverter >
	66	{
	67	public:
	68	BlenderBMeshConverter( const Blender::Mesh* mesh );
	69	~BlenderBMeshConverter( );
	70
	71	bool ContainsBMesh( ) const;
	72
	73	const Blender::Mesh* TriangulateBMesh( );
	74
	75	private:
	76	void AssertValidMesh( );
	77	void AssertValidSizes( );
	78	void PrepareTriMesh( );
	79	void DestroyTriMesh( );
	80	void ConvertPolyToFaces( const Blender::MPoly& poly );
	81	void AddFace( int v1, int v2, int v3, int v4 = 0 );
	82
	83	const Blender::Mesh* BMesh;
	84	Blender::Mesh* triMesh;
	85
	86	friend class BlenderTessellatorGL;
	87	friend class BlenderTessellatorP2T;
	88	};
	89
	90	} // end of namespace Assimp
	91
	92	#endif // INCLUDED_AI_BLEND_BMESH_H

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48	48	#include "TinyFormatter.h"
49	49
50	50	// enable verbose log output. really verbose, so be careful.
51		#ifdef _DEBUG
	51	#ifdef ASSIMP_BUILD_DEBUG
52	52	# define ASSIMP_BUILD_BLENDER_DEBUG
53	53	#endif
54	54

277	277	// --------------------------------------------------------
278	278	// field parsing for pointer or dynamic array types
279	279	// (boost::shared_ptr or boost::shared_array)
	280	// The return value indicates whether the data was already cached.
280	281	template <int error_policy, template <typename> class TOUT, typename T>
281		void ReadFieldPtr(TOUT<T>& out, const char* name,
282		const FileDatabase& db) const;
	282	bool ReadFieldPtr(TOUT<T>& out, const char* name,
	283	const FileDatabase& db,
	284	bool non_recursive = false) const;
283	285
284	286	// --------------------------------------------------------
285	287	// field parsing for static arrays of pointer or dynamic
286	288	// array types (boost::shared_ptr[] or boost::shared_array[])
	289	// The return value indicates whether the data was already cached.
287	290	template <int error_policy, template <typename> class TOUT, typename T, size_t N>
288		void ReadFieldPtr(TOUT<T> (&out)[N], const char* name,
	291	bool ReadFieldPtr(TOUT<T> (&out)[N], const char* name,
289	292	const FileDatabase& db) const;
290	293
291	294	// --------------------------------------------------------
292	295	// field parsing for `normal` values
	296	// The return value indicates whether the data was already cached.
293	297	template <int error_policy, typename T>
294	298	void ReadField(T& out, const char* name,
295	299	const FileDatabase& db) const;

298	302
299	303	// --------------------------------------------------------
300	304	template <template <typename> class TOUT, typename T>
301		void ResolvePointer(TOUT<T>& out, const Pointer & ptrval,
302		const FileDatabase& db, const Field& f) const;
	305	bool ResolvePointer(TOUT<T>& out, const Pointer & ptrval,
	306	const FileDatabase& db, const Field& f,
	307	bool non_recursive = false) const;
303	308
304	309	// --------------------------------------------------------
305	310	template <template <typename> class TOUT, typename T>
306		void ResolvePointer(vector< TOUT<T> >& out, const Pointer & ptrval,
307		const FileDatabase& db, const Field& f) const;
308
309		// --------------------------------------------------------
310		void ResolvePointer( boost::shared_ptr< FileOffset >& out, const Pointer & ptrval,
311		const FileDatabase& db, const Field& f) const;
	311	bool ResolvePointer(vector< TOUT<T> >& out, const Pointer & ptrval,
	312	const FileDatabase& db, const Field& f, bool) const;
	313
	314	// --------------------------------------------------------
	315	bool ResolvePointer( boost::shared_ptr< FileOffset >& out, const Pointer & ptrval,
	316	const FileDatabase& db, const Field& f, bool) const;
312	317
313	318	// --------------------------------------------------------
314	319	inline const FileBlockHead* LocateFileBlockForAddress(

383	388	};
384	389
385	390	// -------------------------------------------------------------------------------------------------------
386		template <> inline void Structure :: ResolvePointer<boost::shared_ptr,ElemBase>(boost::shared_ptr<ElemBase>& out,
	391	template <> inline bool Structure :: ResolvePointer<boost::shared_ptr,ElemBase>(boost::shared_ptr<ElemBase>& out,
387	392	const Pointer & ptrval,
388	393	const FileDatabase& db,
389		const Field& f
	394	const Field& f,
	395	bool
390	396	) const;
391	397
392	398

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179	179
180	180	//--------------------------------------------------------------------------------
181	181	template <int error_policy, template <typename> class TOUT, typename T>
182		void Structure :: ReadFieldPtr(TOUT<T>& out, const char* name, const FileDatabase& db) const
	182	bool Structure :: ReadFieldPtr(TOUT<T>& out, const char* name, const FileDatabase& db,
	183	bool non_recursive /= false/) const
183	184	{
184	185	const StreamReaderAny::pos old = db.reader->GetCurrentPos();
185	186	Pointer ptrval;

202	203	_defaultInitializer<error_policy>()(out,e.what());
203	204
204	205	out.reset();
205		return;
	206	return false;
206	207	}
207	208
208	209	// resolve the pointer and load the corresponding structure
209		ResolvePointer(out,ptrval,db,*f);
210
211		// and recover the previous stream position
212		db.reader->SetCurrentPos(old);
	210	const bool res = ResolvePointer(out,ptrval,db,*f, non_recursive);
	211
	212	if(!non_recursive) {
	213	// and recover the previous stream position
	214	db.reader->SetCurrentPos(old);
	215	}
213	216
214	217	#ifndef ASSIMP_BUILD_BLENDER_NO_STATS
215	218	++db.stats().fields_read;
216	219	#endif
	220
	221	return res;
217	222	}
218	223
219	224	//--------------------------------------------------------------------------------
220	225	template <int error_policy, template <typename> class TOUT, typename T, size_t N>
221		void Structure :: ReadFieldPtr(TOUT<T> (&out)[N], const char* name,
	226	bool Structure :: ReadFieldPtr(TOUT<T> (&out)[N], const char* name,
222	227	const FileDatabase& db) const
223	228	{
224	229	// XXX see if we can reduce this to call to the 'normal' ReadFieldPtr

252	257	for(size_t i = 0; i < N; ++i) {
253	258	out[i].reset();
254	259	}
255		return;
256		}
	260	return false;
	261	}
	262
	263	bool res = true;
257	264	for(size_t i = 0; i < N; ++i) {
258	265	// resolve the pointer and load the corresponding structure
259		ResolvePointer(out[i],ptrval[i],db,*f);
	266	res = ResolvePointer(out[i],ptrval[i],db,*f) && res;
260	267	}
261	268
262	269	// and recover the previous stream position

265	272	#ifndef ASSIMP_BUILD_BLENDER_NO_STATS
266	273	++db.stats().fields_read;
267	274	#endif
	275	return res;
268	276	}
269	277
270	278	//--------------------------------------------------------------------------------

295	303
296	304	//--------------------------------------------------------------------------------
297	305	template <template <typename> class TOUT, typename T>
298		void Structure :: ResolvePointer(TOUT<T>& out, const Pointer & ptrval, const FileDatabase& db, const Field& f) const
299		{
300		out.reset();
	306	bool Structure :: ResolvePointer(TOUT<T>& out, const Pointer & ptrval, const FileDatabase& db,
	307	const Field& f,
	308	bool non_recursive /= false/) const
	309	{
	310	out.reset(); // ensure null pointers work
301	311	if (!ptrval.val) {
302		return;
	312	return false;
303	313	}
304	314	const Structure& s = db.dna[f.type];
305	315	// find the file block the pointer is pointing to

317	327	// try to retrieve the object from the cache
318	328	db.cache(out).get(s,out,ptrval);
319	329	if (out) {
320		return;
	330	return true;
321	331	}
322	332
323	333	// seek to this location, but save the previous stream pointer.

333	343	// cache the object before we convert it to avoid cyclic recursion.
334	344	db.cache(out).set(s,out,ptrval);
335	345
336		for (size_t i = 0; i < num; ++i,++o) {
337		s.Convert(*o,db);
338		}
339
340		db.reader->SetCurrentPos(pold);
	346	// if the non_recursive flag is set, we don't do anything but leave
	347	// the cursor at the correct position to resolve the object.
	348	if (!non_recursive) {
	349	for (size_t i = 0; i < num; ++i,++o) {
	350	s.Convert(*o,db);
	351	}
	352
	353	db.reader->SetCurrentPos(pold);
	354	}
341	355
342	356	#ifndef ASSIMP_BUILD_BLENDER_NO_STATS
343	357	if(out) {
344	358	++db.stats().pointers_resolved;
345	359	}
346	360	#endif
347		}
348
349		//--------------------------------------------------------------------------------
350		inline void Structure :: ResolvePointer( boost::shared_ptr< FileOffset >& out, const Pointer & ptrval, const FileDatabase& db, const Field& /f/) const
	361	return false;
	362	}
	363
	364
	365	//--------------------------------------------------------------------------------
	366	inline bool Structure :: ResolvePointer( boost::shared_ptr< FileOffset >& out, const Pointer & ptrval,
	367	const FileDatabase& db,
	368	const Field&,
	369	bool) const
351	370	{
352	371	// Currently used exclusively by PackedFile::data to represent
353	372	// a simple offset into the mapped BLEND file.
354	373	out.reset();
355	374	if (!ptrval.val) {
356		return;
	375	return false;
357	376	}
358	377
359	378	// find the file block the pointer is pointing to

361	380
362	381	out = boost::shared_ptr< FileOffset > (new FileOffset());
363	382	out->val = block->start+ static_cast<size_t>((ptrval.val - block->address.val) );
	383	return false;
364	384	}
365	385
366	386	//--------------------------------------------------------------------------------
367	387	template <template <typename> class TOUT, typename T>
368		void Structure :: ResolvePointer(vector< TOUT<T> >& out, const Pointer & ptrval, const FileDatabase& db, const Field& f) const
	388	bool Structure :: ResolvePointer(vector< TOUT<T> >& out, const Pointer & ptrval,
	389	const FileDatabase& db,
	390	const Field& f,
	391	bool) const
369	392	{
370	393	// This is a function overload, not a template specialization. According to
371	394	// the partial ordering rules, it should be selected by the compiler

373	396
374	397	out.reset();
375	398	if (!ptrval.val) {
376		return;
	399	return false;
377	400	}
378	401
379	402	// find the file block the pointer is pointing to

384	407	const StreamReaderAny::pos pold = db.reader->GetCurrentPos();
385	408	db.reader->SetCurrentPos(block->start+ static_cast<size_t>((ptrval.val - block->address.val) ));
386	409
	410	bool res = false;
387	411	// allocate raw storage for the array
388	412	out.resize(num);
389	413	for (size_t i = 0; i< num; ++i) {

391	415	Convert(val,db);
392	416
393	417	// and resolve the pointees
394		ResolvePointer(out[i],val,db,f);
	418	res = ResolvePointer(out[i],val,db,f) && res;
395	419	}
396	420
397	421	db.reader->SetCurrentPos(pold);
398		}
399
400		//--------------------------------------------------------------------------------
401		template <> void Structure :: ResolvePointer<boost::shared_ptr,ElemBase>(boost::shared_ptr<ElemBase>& out,
	422	return res;
	423	}
	424
	425	//--------------------------------------------------------------------------------
	426	template <> bool Structure :: ResolvePointer<boost::shared_ptr,ElemBase>(boost::shared_ptr<ElemBase>& out,
402	427	const Pointer & ptrval,
403	428	const FileDatabase& db,
404		const Field& /f/
	429	const Field&,
	430	bool
405	431	) const
406	432	{
407	433	// Special case when the data type needs to be determined at runtime.

409	435
410	436	out.reset();
411	437	if (!ptrval.val) {
412		return;
	438	return false;
413	439	}
414	440
415	441	// find the file block the pointer is pointing to

421	447	// try to retrieve the object from the cache
422	448	db.cache(out).get(s,out,ptrval);
423	449	if (out) {
424		return;
	450	return true;
425	451	}
426	452
427	453	// seek to this location, but save the previous stream pointer.

439	465	DefaultLogger::get()->warn((Formatter::format(),
440	466	"Failed to find a converter for the `",s.name,"` structure"
441	467	));
442		return;
	468	return false;
443	469	}
444	470
445	471	// allocate the object hull

458	484	// to perform additional type checking.
459	485	out->dna_type = s.name.c_str();
460	486
461
462	487
463	488	#ifndef ASSIMP_BUILD_BLENDER_NO_STATS
464	489	++db.stats().pointers_resolved;
465	490	#endif
	491	return false;
466	492	}
467	493
468	494	//--------------------------------------------------------------------------------

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code/BlenderLoader.cpp less more

	0
0	1	/*
1	2	Open Asset Import Library (assimp)
2	3	----------------------------------------------------------------------

49	50
50	51	#include "BlenderIntermediate.h"
51	52	#include "BlenderModifier.h"
	53	#include "BlenderBMesh.h"
52	54
53	55	#include "StreamReader.h"
54	56	#include "MemoryIOWrapper.h"

359	361	root->mNumChildren = static_cast<unsigned int>(no_parents.size());
360	362	root->mChildren = new aiNode*[root->mNumChildren]();
361	363	for (unsigned int i = 0; i < root->mNumChildren; ++i) {
362		root->mChildren[i] = ConvertNode(in, no_parents[i], conv);
	364	root->mChildren[i] = ConvertNode(in, no_parents[i], conv, aiMatrix4x4());
363	365	root->mChildren[i]->mParent = root;
364	366	}
365	367

444	446	else {
445	447	name = aiString( img->name );
446	448	}
447		out->AddProperty(&name,AI_MATKEY_TEXTURE_DIFFUSE(
448		conv_data.next_texture[aiTextureType_DIFFUSE]++)
449		);
	449
	450	aiTextureType texture_type = aiTextureType_UNKNOWN;
	451	MTex::MapType map_type = tex->mapto;
	452
	453	if (map_type & MTex::MapType_COL)
	454	texture_type = aiTextureType_DIFFUSE;
	455	else if (map_type & MTex::MapType_NORM) {
	456	if (tex->tex->imaflag & Tex::ImageFlags_NORMALMAP) {
	457	texture_type = aiTextureType_NORMALS;
	458	}
	459	else {
	460	texture_type = aiTextureType_HEIGHT;
	461	}
	462	out->AddProperty(&tex->norfac,1,AI_MATKEY_BUMPSCALING);
	463	}
	464	else if (map_type & MTex::MapType_COLSPEC)
	465	texture_type = aiTextureType_SPECULAR;
	466	else if (map_type & MTex::MapType_COLMIR)
	467	texture_type = aiTextureType_REFLECTION;
	468	//else if (map_type & MTex::MapType_REF)
	469	else if (map_type & MTex::MapType_SPEC)
	470	texture_type = aiTextureType_SHININESS;
	471	else if (map_type & MTex::MapType_EMIT)
	472	texture_type = aiTextureType_EMISSIVE;
	473	//else if (map_type & MTex::MapType_ALPHA)
	474	//else if (map_type & MTex::MapType_HAR)
	475	//else if (map_type & MTex::MapType_RAYMIRR)
	476	//else if (map_type & MTex::MapType_TRANSLU)
	477	else if (map_type & MTex::MapType_AMB)
	478	texture_type = aiTextureType_AMBIENT;
	479	else if (map_type & MTex::MapType_DISPLACE)
	480	texture_type = aiTextureType_DISPLACEMENT;
	481	//else if (map_type & MTex::MapType_WARP)
	482
	483	out->AddProperty(&name,AI_MATKEY_TEXTURE(texture_type,
	484	conv_data.next_texture[texture_type]++));
	485
450	486	}
451	487
452	488	// ------------------------------------------------------------------------------------------------

471	507	return;
472	508	}
473	509
474		// We can't support most of the texture types because the're mostly procedural.
	510	// We can't support most of the texture types because they're mostly procedural.
475	511	// These are substituted by a dummy texture.
476	512	const char* dispnam = "";
477	513	switch( rtex->type )

567	603	// Usually, zero diffuse color means no diffuse color at all in the equation.
568	604	// So we omit this member to express this intent.
569	605	mout->AddProperty(&col,1,AI_MATKEY_COLOR_DIFFUSE);
	606
	607	if (mat->emit) {
	608	aiColor3D emit_col(mat->emit * mat->r, mat->emit * mat->g, mat->emit * mat->b) ;
	609	mout->AddProperty(&emit_col, 1, AI_MATKEY_COLOR_EMISSIVE) ;
	610	}
570	611	}
571	612
572	613	col = aiColor3D(mat->specr,mat->specg,mat->specb);

617	658	ConversionData& conv_data, TempArray<std::vector,aiMesh>& temp
618	659	)
619	660	{
	661	BlenderBMeshConverter BMeshConverter( mesh );
	662	if ( BMeshConverter.ContainsBMesh( ) )
	663	{
	664	mesh = BMeshConverter.TriangulateBMesh( );
	665	}
	666
620	667	typedef std::pair<const int,size_t> MyPair;
621		if (!mesh->totface \|\| !mesh->totvert) {
	668	if ((!mesh->totface && !mesh->totloop) \|\| !mesh->totvert) {
622	669	return;
623	670	}
624	671

631	678	ThrowException("Number of vertices is larger than the corresponding array");
632	679	}
633	680
	681	if (static_cast<size_t> ( mesh->totloop ) > mesh->mloop.size()) {
	682	ThrowException("Number of vertices is larger than the corresponding array");
	683	}
	684
634	685	// collect per-submesh numbers
635	686	std::map<int,size_t> per_mat;
	687	std::map<int,size_t> per_mat_verts;
636	688	for (int i = 0; i < mesh->totface; ++i) {
637	689
638	690	const MFace& mf = mesh->mface[i];
639	691	per_mat[ mf.mat_nr ]++;
	692	per_mat_verts[ mf.mat_nr ] += mf.v4?4:3;
	693	}
	694
	695	for (int i = 0; i < mesh->totpoly; ++i) {
	696	const MPoly& mp = mesh->mpoly[i];
	697	per_mat[ mp.mat_nr ]++;
	698	per_mat_verts[ mp.mat_nr ] += mp.totloop;
640	699	}
641	700
642	701	// ... and allocate the corresponding meshes

650	709	temp->push_back(new aiMesh());
651	710
652	711	aiMesh* out = temp->back();
653		out->mVertices = new aiVector3D[it.second*4];
654		out->mNormals = new aiVector3D[it.second*4];
	712	out->mVertices = new aiVector3D[per_mat_verts[it.first]];
	713	out->mNormals = new aiVector3D[per_mat_verts[it.first]];
655	714
656	715	//out->mNumFaces = 0
657	716	//out->mNumVertices = 0

774	833	// }
775	834	}
776	835
	836	for (int i = 0; i < mesh->totpoly; ++i) {
	837
	838	const MPoly& mf = mesh->mpoly[i];
	839
	840	aiMesh* const out = temp[ mat_num_to_mesh_idx[ mf.mat_nr ] ];
	841	aiFace& f = out->mFaces[out->mNumFaces++];
	842
	843	f.mIndices = new unsigned int[ f.mNumIndices = mf.totloop ];
	844	aiVector3D* vo = out->mVertices + out->mNumVertices;
	845	aiVector3D* vn = out->mNormals + out->mNumVertices;
	846
	847	// XXX we can't fold this easily, because we are restricted
	848	// to the member names from the BLEND file (v1,v2,v3,v4)
	849	// which are assigned by the genblenddna.py script and
	850	// cannot be changed without breaking the entire
	851	// import process.
	852	for (int j = 0;j < mf.totloop; ++j)
	853	{
	854	const MLoop& loop = mesh->mloop[mf.loopstart + j];
	855
	856	if (loop.v >= mesh->totvert) {
	857	ThrowException("Vertex index out of range");
	858	}
	859
	860	const MVert& v = mesh->mvert[loop.v];
	861
	862	vo->x = v.co[0];
	863	vo->y = v.co[1];
	864	vo->z = v.co[2];
	865	vn->x = v.no[0];
	866	vn->y = v.no[1];
	867	vn->z = v.no[2];
	868	f.mIndices[j] = out->mNumVertices++;
	869
	870	++vo;
	871	++vn;
	872
	873	}
	874	if (mf.totloop == 3)
	875	{
	876	out->mPrimitiveTypes \|= aiPrimitiveType_TRIANGLE;
	877	}
	878	else
	879	{
	880	out->mPrimitiveTypes \|= aiPrimitiveType_POLYGON;
	881	}
	882	}
	883
777	884	// collect texture coordinates, they're stored in a separate per-face buffer
778		if (mesh->mtface) {
	885	if (mesh->mtface \|\| mesh->mloopuv) {
779	886	if (mesh->totface > static_cast<int> ( mesh->mtface.size())) {
780	887	ThrowException("Number of UV faces is larger than the corresponding UV face array (#1)");
781	888	}

798	905	vo->y = v->uv[i][1];
799	906	}
800	907	}
	908
	909	for (int i = 0; i < mesh->totpoly; ++i) {
	910	const MPoly& v = mesh->mpoly[i];
	911	aiMesh* const out = temp[ mat_num_to_mesh_idx[ v.mat_nr ] ];
	912	const aiFace& f = out->mFaces[out->mNumFaces++];
	913
	914	aiVector3D* vo = &out->mTextureCoords[0][out->mNumVertices];
	915	for (unsigned int j = 0; j < f.mNumIndices; ++j,++vo,++out->mNumVertices) {
	916	const MLoopUV& uv = mesh->mloopuv[v.loopstart + j];
	917	vo->x = uv.uv[0];
	918	vo->y = uv.uv[1];
	919	}
	920
	921	}
801	922	}
802	923
803	924	// collect texture coordinates, old-style (marked as deprecated in current blender sources)

827	948	}
828	949
829	950	// collect vertex colors, stored separately as well
830		if (mesh->mcol) {
	951	if (mesh->mcol \|\| mesh->mloopcol) {
831	952	if (mesh->totface > static_cast<int> ( (mesh->mcol.size()/4)) ) {
832	953	ThrowException("Number of faces is larger than the corresponding color face array");
833	954	}

854	975	}
855	976	for (unsigned int n = f.mNumIndices; n < 4; ++n);
856	977	}
	978
	979	for (int i = 0; i < mesh->totpoly; ++i) {
	980	const MPoly& v = mesh->mpoly[i];
	981	aiMesh* const out = temp[ mat_num_to_mesh_idx[ v.mat_nr ] ];
	982	const aiFace& f = out->mFaces[out->mNumFaces++];
	983
	984	aiColor4D* vo = &out->mColors[0][out->mNumVertices];
	985	for (unsigned int j = 0; j < f.mNumIndices; ++j,++vo,++out->mNumVertices) {
	986	const MLoopCol& col = mesh->mloopcol[v.loopstart + j];
	987	vo->r = col.r;
	988	vo->g = col.g;
	989	vo->b = col.b;
	990	vo->a = col.a;
	991	}
	992
	993	}
	994
857	995	}
858	996
859	997	return;
860	998	}
861	999
862	1000	// ------------------------------------------------------------------------------------------------
863		aiCamera* BlenderImporter::ConvertCamera(const Scene& /in/, const Object* /obj/, const Camera* /mesh/, ConversionData& /conv_data/)
	1001	aiCamera* BlenderImporter::ConvertCamera(const Scene& /in/, const Object* obj, const Camera* camera, ConversionData& /conv_data/)
864	1002	{
865	1003	ScopeGuard<aiCamera> out(new aiCamera());
866
867		return NULL ; //out.dismiss();
868		}
869
870		// ------------------------------------------------------------------------------------------------
871		aiLight* BlenderImporter::ConvertLight(const Scene& /in/, const Object* /obj/, const Lamp* /mesh/, ConversionData& /conv_data/)
	1004	out->mName = obj->id.name+2;
	1005	out->mPosition = aiVector3D(0.f, 0.f, 0.f);
	1006	out->mUp = aiVector3D(0.f, 1.f, 0.f);
	1007	out->mLookAt = aiVector3D(0.f, 0.f, -1.f);
	1008	return out.dismiss();
	1009	}
	1010
	1011	// ------------------------------------------------------------------------------------------------
	1012	aiLight* BlenderImporter::ConvertLight(const Scene& in, const Object* obj, const Lamp* lamp, ConversionData& conv_data)
872	1013	{
873	1014	ScopeGuard<aiLight> out(new aiLight());
874
875		return NULL ; //out.dismiss();
876		}
877
878		// ------------------------------------------------------------------------------------------------
879		aiNode* BlenderImporter::ConvertNode(const Scene& in, const Object* obj, ConversionData& conv_data)
	1015	out->mName = obj->id.name+2;
	1016
	1017	switch (lamp->type)
	1018	{
	1019	case Lamp::Type_Local:
	1020	out->mType = aiLightSource_POINT;
	1021	break;
	1022	case Lamp::Type_Sun:
	1023	out->mType = aiLightSource_DIRECTIONAL;
	1024
	1025	// blender orients directional lights as facing toward -z
	1026	out->mDirection = aiVector3D(0.f, 0.f, -1.f);
	1027	break;
	1028	default:
	1029	break;
	1030	}
	1031
	1032	out->mColorAmbient = aiColor3D(lamp->r, lamp->g, lamp->b) * lamp->energy;
	1033	out->mColorSpecular = aiColor3D(lamp->r, lamp->g, lamp->b) * lamp->energy;
	1034	out->mColorDiffuse = aiColor3D(lamp->r, lamp->g, lamp->b) * lamp->energy;
	1035	return out.dismiss();
	1036	}
	1037
	1038	// ------------------------------------------------------------------------------------------------
	1039	aiNode* BlenderImporter::ConvertNode(const Scene& in, const Object* obj, ConversionData& conv_data, const aiMatrix4x4& parentTransform)
880	1040	{
881	1041	std::deque<const Object*> children;
882	1042	for(std::set<const Object*>::iterator it = conv_data.objects.begin(); it != conv_data.objects.end() ;) {

960	1120
961	1121	for(unsigned int x = 0; x < 4; ++x) {
962	1122	for(unsigned int y = 0; y < 4; ++y) {
963		node->mTransformation[y][x] = obj->parentinv[x][y];
964		}
965		}
966
967		aiMatrix4x4 m;
968		for(unsigned int x = 0; x < 4; ++x) {
969		for(unsigned int y = 0; y < 4; ++y) {
970		m[y][x] = obj->obmat[x][y];
971		}
972		}
	1123	node->mTransformation[y][x] = obj->obmat[x][y];
	1124	}
	1125	}
	1126
	1127	aiMatrix4x4 m = parentTransform;
	1128	m = m.Inverse();
973	1129
974	1130	node->mTransformation = m*node->mTransformation;
975	1131

977	1133	node->mNumChildren = static_cast<unsigned int>(children.size());
978	1134	aiNode** nd = node->mChildren = new aiNode*[node->mNumChildren]();
979	1135	for_each (const Object* nobj,children) {
980		*nd = ConvertNode(in,nobj,conv_data);
	1136	nd = ConvertNode(in,nobj,conv_data,node->mTransformation parentTransform);
981	1137	(*nd++)->mParent = node;
982	1138	}
983	1139	}

-1

code/BlenderLoader.h less more

144	144	// --------------------
145	145	aiNode* ConvertNode(const Blender::Scene& in,
146	146	const Blender::Object* obj,
147		Blender::ConversionData& conv_info
	147	Blender::ConversionData& conv_info,
	148	const aiMatrix4x4& parentTransform
148	149	);
149	150
150	151	// --------------------

-0

code/BlenderModifier.cpp less more

247	247	}
248	248	}
249	249
	250	// Only reverse the winding order if an odd number of axes were mirrored.
	251	if (xs * ys * zs < 0) {
	252	for( unsigned int i = 0; i < mesh->mNumFaces; i++) {
	253	aiFace& face = mesh->mFaces[i];
	254	for( unsigned int fi = 0; fi < face.mNumIndices / 2; ++fi)
	255	std::swap( face.mIndices[fi], face.mIndices[face.mNumIndices - 1 - fi]);
	256	}
	257	}
	258
250	259	conv_data.meshes->push_back(mesh);
251	260	}
252	261	unsigned int* nind = new unsigned int[out.mNumMeshes*2];

+198

-87

code/BlenderScene.cpp less more

41	41	* @brief MACHINE GENERATED BY ./scripts/BlenderImporter/genblenddna.py
42	42	*/
43	43	#include "AssimpPCH.h"
44		#ifndef AI_BUILD_NO_BLEND_IMPORTER
	44	#ifndef ASSIMP_BUILD_NO_BLEND_IMPORTER
45	45
46	46	#include "BlenderDNA.h"
47	47	#include "BlenderScene.h"

99	99	) const
100	100	{
101	101
	102	ReadField<ErrorPolicy_Igno>((short&)dest.mapto,"mapto",db);
102	103	ReadField<ErrorPolicy_Igno>((int&)dest.blendtype,"blendtype",db);
103	104	ReadFieldPtr<ErrorPolicy_Igno>(dest.object,"*object",db);
104	105	ReadFieldPtr<ErrorPolicy_Igno>(dest.tex,"*tex",db);

125	126	ReadField<ErrorPolicy_Igno>(dest.specfac,"specfac",db);
126	127	ReadField<ErrorPolicy_Igno>(dest.emitfac,"emitfac",db);
127	128	ReadField<ErrorPolicy_Igno>(dest.hardfac,"hardfac",db);
	129	ReadField<ErrorPolicy_Igno>(dest.norfac,"norfac",db);
128	130
129	131	db.reader->IncPtr(size);
130	132	}

240	242	const FileDatabase& db
241	243	) const
242	244	{
243
244		{
245		boost::shared_ptr<Base> prev;
246		ReadFieldPtr<ErrorPolicy_Warn>(prev,"*prev",db);
247		dest.prev = prev.get();
248		}
249		ReadFieldPtr<ErrorPolicy_Warn>(dest.next,"*next",db);
250		ReadFieldPtr<ErrorPolicy_Warn>(dest.object,"*object",db);
251
252		db.reader->IncPtr(size);
	245	// note: as per https://github.com/assimp/assimp/issues/128,
	246	// reading the Object linked list recursively is prone to stack overflow.
	247	// This structure converter is therefore an hand-written exception that
	248	// does it iteratively.
	249
	250	const int initial_pos = db.reader->GetCurrentPos();
	251
	252	std::pair<Base*, int> todo = std::make_pair(&dest, initial_pos);
	253	for ( ;; ) {
	254
	255	Base& cur_dest = *todo.first;
	256	db.reader->SetCurrentPos(todo.second);
	257
	258	// we know that this is a double-linked, circular list which we never
	259	// traverse backwards, so don't bother resolving the back links.
	260	cur_dest.prev = NULL;
	261
	262	ReadFieldPtr<ErrorPolicy_Warn>(cur_dest.object,"*object",db);
	263
	264	// the return value of ReadFieldPtr indicates whether the object
	265	// was already cached. In this case, we don't need to resolve
	266	// it again.
	267	if(!ReadFieldPtr<ErrorPolicy_Warn>(cur_dest.next,"*next",db, true) && cur_dest.next) {
	268	todo = std::make_pair(&*cur_dest.next, db.reader->GetCurrentPos());
	269	continue;
	270	}
	271	break;
	272	}
	273
	274	db.reader->SetCurrentPos(initial_pos + size);
253	275	}
254	276
255	277	//--------------------------------------------------------------------------------

305	327	}
306	328
307	329	//--------------------------------------------------------------------------------
	330	template <> void Structure :: Convert<MTexPoly> (
	331	MTexPoly& dest,
	332	const FileDatabase& db
	333	) const
	334	{
	335
	336	{
	337	boost::shared_ptr<Image> tpage;
	338	ReadFieldPtr<ErrorPolicy_Igno>(tpage,"*tpage",db);
	339	dest.tpage = tpage.get();
	340	}
	341	ReadField<ErrorPolicy_Igno>(dest.flag,"flag",db);
	342	ReadField<ErrorPolicy_Igno>(dest.transp,"transp",db);
	343	ReadField<ErrorPolicy_Igno>(dest.mode,"mode",db);
	344	ReadField<ErrorPolicy_Igno>(dest.tile,"tile",db);
	345	ReadField<ErrorPolicy_Igno>(dest.pad,"pad",db);
	346
	347	db.reader->IncPtr(size);
	348	}
	349
	350	//--------------------------------------------------------------------------------
308	351	template <> void Structure :: Convert<Mesh> (
309	352	Mesh& dest,
310	353	const FileDatabase& db

315	358	ReadField<ErrorPolicy_Fail>(dest.totface,"totface",db);
316	359	ReadField<ErrorPolicy_Fail>(dest.totedge,"totedge",db);
317	360	ReadField<ErrorPolicy_Fail>(dest.totvert,"totvert",db);
	361	ReadField<ErrorPolicy_Igno>(dest.totloop,"totloop",db);
	362	ReadField<ErrorPolicy_Igno>(dest.totpoly,"totpoly",db);
318	363	ReadField<ErrorPolicy_Igno>(dest.subdiv,"subdiv",db);
319	364	ReadField<ErrorPolicy_Igno>(dest.subdivr,"subdivr",db);
320	365	ReadField<ErrorPolicy_Igno>(dest.subsurftype,"subsurftype",db);

324	369	ReadFieldPtr<ErrorPolicy_Igno>(dest.tface,"*tface",db);
325	370	ReadFieldPtr<ErrorPolicy_Fail>(dest.mvert,"*mvert",db);
326	371	ReadFieldPtr<ErrorPolicy_Warn>(dest.medge,"*medge",db);
	372	ReadFieldPtr<ErrorPolicy_Igno>(dest.mloop,"*mloop",db);
	373	ReadFieldPtr<ErrorPolicy_Igno>(dest.mloopuv,"*mloopuv",db);
	374	ReadFieldPtr<ErrorPolicy_Igno>(dest.mloopcol,"*mloopcol",db);
	375	ReadFieldPtr<ErrorPolicy_Igno>(dest.mpoly,"*mpoly",db);
	376	ReadFieldPtr<ErrorPolicy_Igno>(dest.mtpoly,"*mtpoly",db);
327	377	ReadFieldPtr<ErrorPolicy_Igno>(dest.dvert,"*dvert",db);
328	378	ReadFieldPtr<ErrorPolicy_Igno>(dest.mcol,"*mcol",db);
329	379	ReadFieldPtr<ErrorPolicy_Fail>(dest.mat,"**mat",db);

352	402	{
353	403
354	404	ReadField<ErrorPolicy_Fail>(dest.id,"id",db);
	405
	406	db.reader->IncPtr(size);
	407	}
	408
	409	//--------------------------------------------------------------------------------
	410	template <> void Structure :: Convert<MLoopCol> (
	411	MLoopCol& dest,
	412	const FileDatabase& db
	413	) const
	414	{
	415
	416	ReadField<ErrorPolicy_Igno>(dest.r,"r",db);
	417	ReadField<ErrorPolicy_Igno>(dest.g,"g",db);
	418	ReadField<ErrorPolicy_Igno>(dest.b,"b",db);
	419	ReadField<ErrorPolicy_Igno>(dest.a,"a",db);
355	420
356	421	db.reader->IncPtr(size);
357	422	}

389	454	}
390	455
391	456	//--------------------------------------------------------------------------------
	457	template <> void Structure :: Convert<MLoopUV> (
	458	MLoopUV& dest,
	459	const FileDatabase& db
	460	) const
	461	{
	462
	463	ReadFieldArray<ErrorPolicy_Igno>(dest.uv,"uv",db);
	464	ReadField<ErrorPolicy_Igno>(dest.flag,"flag",db);
	465
	466	db.reader->IncPtr(size);
	467	}
	468
	469	//--------------------------------------------------------------------------------
392	470	template <> void Structure :: Convert<GroupObject> (
393	471	GroupObject& dest,
394	472	const FileDatabase& db

411	489
412	490	ReadFieldPtr<ErrorPolicy_Igno>(dest.first,"*first",db);
413	491	ReadFieldPtr<ErrorPolicy_Igno>(dest.last,"*last",db);
	492
	493	db.reader->IncPtr(size);
	494	}
	495
	496	//--------------------------------------------------------------------------------
	497	template <> void Structure :: Convert<MLoop> (
	498	MLoop& dest,
	499	const FileDatabase& db
	500	) const
	501	{
	502
	503	ReadField<ErrorPolicy_Igno>(dest.v,"v",db);
	504	ReadField<ErrorPolicy_Igno>(dest.e,"e",db);
414	505
415	506	db.reader->IncPtr(size);
416	507	}

455	546	ReadField<ErrorPolicy_Fail>(dest.g,"g",db);
456	547	ReadField<ErrorPolicy_Fail>(dest.b,"b",db);
457	548	ReadField<ErrorPolicy_Fail>(dest.a,"a",db);
	549
	550	db.reader->IncPtr(size);
	551	}
	552
	553	//--------------------------------------------------------------------------------
	554	template <> void Structure :: Convert<MPoly> (
	555	MPoly& dest,
	556	const FileDatabase& db
	557	) const
	558	{
	559
	560	ReadField<ErrorPolicy_Igno>(dest.loopstart,"loopstart",db);
	561	ReadField<ErrorPolicy_Igno>(dest.totloop,"totloop",db);
	562	ReadField<ErrorPolicy_Igno>(dest.mat_nr,"mat_nr",db);
	563	ReadField<ErrorPolicy_Igno>(dest.flag,"flag",db);
	564
	565	db.reader->IncPtr(size);
	566	}
	567
	568	//--------------------------------------------------------------------------------
	569	template <> void Structure :: Convert<Scene> (
	570	Scene& dest,
	571	const FileDatabase& db
	572	) const
	573	{
	574
	575	ReadField<ErrorPolicy_Fail>(dest.id,"id",db);
	576	ReadFieldPtr<ErrorPolicy_Warn>(dest.camera,"*camera",db);
	577	ReadFieldPtr<ErrorPolicy_Warn>(dest.world,"*world",db);
	578	ReadFieldPtr<ErrorPolicy_Warn>(dest.basact,"*basact",db);
	579	ReadField<ErrorPolicy_Igno>(dest.base,"base",db);
	580
	581	db.reader->IncPtr(size);
	582	}
	583
	584	//--------------------------------------------------------------------------------
	585	template <> void Structure :: Convert<Library> (
	586	Library& dest,
	587	const FileDatabase& db
	588	) const
	589	{
	590
	591	ReadField<ErrorPolicy_Fail>(dest.id,"id",db);
	592	ReadFieldArray<ErrorPolicy_Warn>(dest.name,"name",db);
	593	ReadFieldArray<ErrorPolicy_Fail>(dest.filename,"filename",db);
	594	ReadFieldPtr<ErrorPolicy_Warn>(dest.parent,"*parent",db);
	595
	596	db.reader->IncPtr(size);
	597	}
	598
	599	//--------------------------------------------------------------------------------
	600	template <> void Structure :: Convert<Tex> (
	601	Tex& dest,
	602	const FileDatabase& db
	603	) const
	604	{
	605	ReadField<ErrorPolicy_Igno>((short&)dest.imaflag,"imaflag",db);
	606	ReadField<ErrorPolicy_Fail>((int&)dest.type,"type",db);
	607	ReadFieldPtr<ErrorPolicy_Warn>(dest.ima,"*ima",db);
	608
	609	db.reader->IncPtr(size);
	610	}
	611
	612	//--------------------------------------------------------------------------------
	613	template <> void Structure :: Convert<Camera> (
	614	Camera& dest,
	615	const FileDatabase& db
	616	) const
	617	{
	618
	619	ReadField<ErrorPolicy_Fail>(dest.id,"id",db);
	620	ReadField<ErrorPolicy_Warn>((int&)dest.type,"type",db);
	621	ReadField<ErrorPolicy_Warn>((int&)dest.flag,"flag",db);
	622	ReadField<ErrorPolicy_Warn>(dest.angle,"angle",db);
	623
	624	db.reader->IncPtr(size);
	625	}
	626
	627	//--------------------------------------------------------------------------------
	628	template <> void Structure :: Convert<MirrorModifierData> (
	629	MirrorModifierData& dest,
	630	const FileDatabase& db
	631	) const
	632	{
	633
	634	ReadField<ErrorPolicy_Fail>(dest.modifier,"modifier",db);
	635	ReadField<ErrorPolicy_Igno>(dest.axis,"axis",db);
	636	ReadField<ErrorPolicy_Igno>(dest.flag,"flag",db);
	637	ReadField<ErrorPolicy_Igno>(dest.tolerance,"tolerance",db);
	638	ReadFieldPtr<ErrorPolicy_Igno>(dest.mirror_ob,"*mirror_ob",db);
458	639
459	640	db.reader->IncPtr(size);
460	641	}

493	674	}
494	675
495	676	//--------------------------------------------------------------------------------
496		template <> void Structure :: Convert<Scene> (
497		Scene& dest,
498		const FileDatabase& db
499		) const
500		{
501
502		ReadField<ErrorPolicy_Fail>(dest.id,"id",db);
503		ReadFieldPtr<ErrorPolicy_Warn>(dest.camera,"*camera",db);
504		ReadFieldPtr<ErrorPolicy_Warn>(dest.world,"*world",db);
505		ReadFieldPtr<ErrorPolicy_Warn>(dest.basact,"*basact",db);
506		ReadField<ErrorPolicy_Igno>(dest.base,"base",db);
507
508		db.reader->IncPtr(size);
509		}
510
511		//--------------------------------------------------------------------------------
512		template <> void Structure :: Convert<Library> (
513		Library& dest,
514		const FileDatabase& db
515		) const
516		{
517
518		ReadField<ErrorPolicy_Fail>(dest.id,"id",db);
519		ReadFieldArray<ErrorPolicy_Warn>(dest.name,"name",db);
520		ReadFieldArray<ErrorPolicy_Fail>(dest.filename,"filename",db);
521		ReadFieldPtr<ErrorPolicy_Warn>(dest.parent,"*parent",db);
522
523		db.reader->IncPtr(size);
524		}
525
526		//--------------------------------------------------------------------------------
527		template <> void Structure :: Convert<Tex> (
528		Tex& dest,
529		const FileDatabase& db
530		) const
531		{
532
533		ReadField<ErrorPolicy_Fail>((int&)dest.type,"type",db);
534		ReadFieldPtr<ErrorPolicy_Warn>(dest.ima,"*ima",db);
535
536		db.reader->IncPtr(size);
537		}
538
539		//--------------------------------------------------------------------------------
540		template <> void Structure :: Convert<Camera> (
541		Camera& dest,
542		const FileDatabase& db
543		) const
544		{
545
546		ReadField<ErrorPolicy_Fail>(dest.id,"id",db);
547		ReadField<ErrorPolicy_Warn>((int&)dest.type,"type",db);
548		ReadField<ErrorPolicy_Warn>((int&)dest.flag,"flag",db);
549		ReadField<ErrorPolicy_Warn>(dest.angle,"angle",db);
550
551		db.reader->IncPtr(size);
552		}
553
554		//--------------------------------------------------------------------------------
555		template <> void Structure :: Convert<MirrorModifierData> (
556		MirrorModifierData& dest,
557		const FileDatabase& db
558		) const
559		{
560
561		ReadField<ErrorPolicy_Fail>(dest.modifier,"modifier",db);
562		ReadField<ErrorPolicy_Igno>(dest.axis,"axis",db);
563		ReadField<ErrorPolicy_Igno>(dest.flag,"flag",db);
564		ReadField<ErrorPolicy_Igno>(dest.tolerance,"tolerance",db);
565		ReadFieldPtr<ErrorPolicy_Igno>(dest.mirror_ob,"*mirror_ob",db);
566
567		db.reader->IncPtr(size);
568		}
569
570		//--------------------------------------------------------------------------------
571	677	void DNA::RegisterConverters() {
572	678
573	679	converters["Object"] = DNA::FactoryPair( &Structure::Allocate<Object>, &Structure::Convert<Object> );

582	688	converters["Base"] = DNA::FactoryPair( &Structure::Allocate<Base>, &Structure::Convert<Base> );
583	689	converters["MTFace"] = DNA::FactoryPair( &Structure::Allocate<MTFace>, &Structure::Convert<MTFace> );
584	690	converters["Material"] = DNA::FactoryPair( &Structure::Allocate<Material>, &Structure::Convert<Material> );
	691	converters["MTexPoly"] = DNA::FactoryPair( &Structure::Allocate<MTexPoly>, &Structure::Convert<MTexPoly> );
585	692	converters["Mesh"] = DNA::FactoryPair( &Structure::Allocate<Mesh>, &Structure::Convert<Mesh> );
586	693	converters["MDeformVert"] = DNA::FactoryPair( &Structure::Allocate<MDeformVert>, &Structure::Convert<MDeformVert> );
587	694	converters["World"] = DNA::FactoryPair( &Structure::Allocate<World>, &Structure::Convert<World> );
	695	converters["MLoopCol"] = DNA::FactoryPair( &Structure::Allocate<MLoopCol>, &Structure::Convert<MLoopCol> );
588	696	converters["MVert"] = DNA::FactoryPair( &Structure::Allocate<MVert>, &Structure::Convert<MVert> );
589	697	converters["MEdge"] = DNA::FactoryPair( &Structure::Allocate<MEdge>, &Structure::Convert<MEdge> );
	698	converters["MLoopUV"] = DNA::FactoryPair( &Structure::Allocate<MLoopUV>, &Structure::Convert<MLoopUV> );
590	699	converters["GroupObject"] = DNA::FactoryPair( &Structure::Allocate<GroupObject>, &Structure::Convert<GroupObject> );
591	700	converters["ListBase"] = DNA::FactoryPair( &Structure::Allocate<ListBase>, &Structure::Convert<ListBase> );
	701	converters["MLoop"] = DNA::FactoryPair( &Structure::Allocate<MLoop>, &Structure::Convert<MLoop> );
592	702	converters["ModifierData"] = DNA::FactoryPair( &Structure::Allocate<ModifierData>, &Structure::Convert<ModifierData> );
593	703	converters["ID"] = DNA::FactoryPair( &Structure::Allocate<ID>, &Structure::Convert<ID> );
594	704	converters["MCol"] = DNA::FactoryPair( &Structure::Allocate<MCol>, &Structure::Convert<MCol> );
595		converters["Image"] = DNA::FactoryPair( &Structure::Allocate<Image>, &Structure::Convert<Image> );
	705	converters["MPoly"] = DNA::FactoryPair( &Structure::Allocate<MPoly>, &Structure::Convert<MPoly> );
596	706	converters["Scene"] = DNA::FactoryPair( &Structure::Allocate<Scene>, &Structure::Convert<Scene> );
597	707	converters["Library"] = DNA::FactoryPair( &Structure::Allocate<Library>, &Structure::Convert<Library> );
598	708	converters["Tex"] = DNA::FactoryPair( &Structure::Allocate<Tex>, &Structure::Convert<Tex> );
599	709	converters["Camera"] = DNA::FactoryPair( &Structure::Allocate<Camera>, &Structure::Convert<Camera> );
600	710	converters["MirrorModifierData"] = DNA::FactoryPair( &Structure::Allocate<MirrorModifierData>, &Structure::Convert<MirrorModifierData> );
	711	converters["Image"] = DNA::FactoryPair( &Structure::Allocate<Image>, &Structure::Convert<Image> );
601	712	}
602	713
603	714

+75

-3

code/BlenderScene.h less more

93	93
94	94	struct Object;
95	95	struct MTex;
	96	struct Image;
96	97
97	98	#define AI_BLEND_MESH_MAX_VERTS 2000000000L
98	99

153	154	int v1, v2 FAIL;
154	155	char crease, bweight;
155	156	short flag;
	157	};
	158
	159	// -------------------------------------------------------------------------------
	160	struct MLoop : ElemBase {
	161	int v, e;
	162	};
	163
	164	// -------------------------------------------------------------------------------
	165	struct MLoopUV : ElemBase {
	166	float uv[2];
	167	int flag;
	168	};
	169
	170	// -------------------------------------------------------------------------------
	171	// Note that red and blue are not swapped, as with MCol
	172	struct MLoopCol : ElemBase {
	173	char r, g, b, a;
	174	};
	175
	176	// -------------------------------------------------------------------------------
	177	struct MPoly : ElemBase {
	178	int loopstart;
	179	int totloop;
	180	short mat_nr;
	181	char flag;
	182	};
	183
	184	// -------------------------------------------------------------------------------
	185	struct MTexPoly : ElemBase {
	186	Image* tpage;
	187	char flag, transp;
	188	short mode, tile, pad;
156	189	};
157	190
158	191	// -------------------------------------------------------------------------------

234	267	int totface FAIL;
235	268	int totedge FAIL;
236	269	int totvert FAIL;
	270	int totloop;
	271	int totpoly;
237	272
238	273	short subdiv;
239	274	short subdivr;

245	280	vector<TFace> tface;
246	281	vector<MVert> mvert FAIL;
247	282	vector<MEdge> medge WARN;
	283	vector<MLoop> mloop;
	284	vector<MLoopUV> mloopuv;
	285	vector<MLoopCol> mloopcol;
	286	vector<MPoly> mpoly;
	287	vector<MTexPoly> mtpoly;
248	288	vector<MDeformVert> dvert;
249	289	vector<MCol> mcol;
250	290

557	597	,Type_VOXELDATA = 15
558	598	};
559	599
	600	enum ImageFlags {
	601	ImageFlags_INTERPOL = 1
	602	,ImageFlags_USEALPHA = 2
	603	,ImageFlags_MIPMAP = 4
	604	,ImageFlags_IMAROT = 16
	605	,ImageFlags_CALCALPHA = 32
	606	,ImageFlags_NORMALMAP = 2048
	607	,ImageFlags_GAUSS_MIP = 4096
	608	,ImageFlags_FILTER_MIN = 8192
	609	,ImageFlags_DERIVATIVEMAP = 16384
	610	};
	611
560	612	ID id FAIL;
561	613	// AnimData *adt;
562	614

577	629	//short noisedepth, noisetype;
578	630	//short noisebasis, noisebasis2;
579	631
580		//short imaflag, flag;
	632	//short flag;
	633	ImageFlags imaflag;
581	634	Type type FAIL;
582	635	//short stype;
583	636

644	697	,BlendType_BLEND_COLOR = 13
645	698	};
646	699
647		// short texco, mapto, maptoneg;
	700	enum MapType {
	701	MapType_COL = 1
	702	,MapType_NORM = 2
	703	,MapType_COLSPEC = 4
	704	,MapType_COLMIR = 8
	705	,MapType_REF = 16
	706	,MapType_SPEC = 32
	707	,MapType_EMIT = 64
	708	,MapType_ALPHA = 128
	709	,MapType_HAR = 256
	710	,MapType_RAYMIRR = 512
	711	,MapType_TRANSLU = 1024
	712	,MapType_AMB = 2048
	713	,MapType_DISPLACE = 4096
	714	,MapType_WARP = 8192
	715	};
	716
	717	// short texco, maptoneg;
	718	MapType mapto;
648	719
649	720	BlendType blendtype;
650	721	boost::shared_ptr<Object> object;

664	735
665	736	//float colfac, varfac;
666	737
667		//float norfac, dispfac, warpfac;
	738	float norfac;
	739	//float dispfac, warpfac;
668	740	float colspecfac, mirrfac, alphafac;
669	741	float difffac, specfac, emitfac, hardfac;
670	742	//float raymirrfac, translfac, ambfac;

+60

-30

code/BlenderSceneGen.h less more

119	119	) const
120	120	;
121	121
	122	template <> void Structure :: Convert<MTexPoly> (
	123	MTexPoly& dest,
	124	const FileDatabase& db
	125	) const
	126	;
	127
122	128	template <> void Structure :: Convert<Mesh> (
123	129	Mesh& dest,
124	130	const FileDatabase& db

137	143	) const
138	144	;
139	145
	146	template <> void Structure :: Convert<MLoopCol> (
	147	MLoopCol& dest,
	148	const FileDatabase& db
	149	) const
	150	;
	151
140	152	template <> void Structure :: Convert<MVert> (
141	153	MVert& dest,
142	154	const FileDatabase& db

149	161	) const
150	162	;
151	163
	164	template <> void Structure :: Convert<MLoopUV> (
	165	MLoopUV& dest,
	166	const FileDatabase& db
	167	) const
	168	;
	169
152	170	template <> void Structure :: Convert<GroupObject> (
153	171	GroupObject& dest,
154	172	const FileDatabase& db

161	179	) const
162	180	;
163	181
	182	template <> void Structure :: Convert<MLoop> (
	183	MLoop& dest,
	184	const FileDatabase& db
	185	) const
	186	;
	187
164	188	template <> void Structure :: Convert<ModifierData> (
165	189	ModifierData& dest,
166	190	const FileDatabase& db

179	203	) const
180	204	;
181	205
	206	template <> void Structure :: Convert<MPoly> (
	207	MPoly& dest,
	208	const FileDatabase& db
	209	) const
	210	;
	211
	212	template <> void Structure :: Convert<Scene> (
	213	Scene& dest,
	214	const FileDatabase& db
	215	) const
	216	;
	217
	218	template <> void Structure :: Convert<Library> (
	219	Library& dest,
	220	const FileDatabase& db
	221	) const
	222	;
	223
	224	template <> void Structure :: Convert<Tex> (
	225	Tex& dest,
	226	const FileDatabase& db
	227	) const
	228	;
	229
	230	template <> void Structure :: Convert<Camera> (
	231	Camera& dest,
	232	const FileDatabase& db
	233	) const
	234	;
	235
	236	template <> void Structure :: Convert<MirrorModifierData> (
	237	MirrorModifierData& dest,
	238	const FileDatabase& db
	239	) const
	240	;
	241
182	242	template <> void Structure :: Convert<Image> (
183	243	Image& dest,
184	244	const FileDatabase& db
185	245	) const
186	246	;
187	247
188		template <> void Structure :: Convert<Scene> (
189		Scene& dest,
190		const FileDatabase& db
191		) const
192		;
193
194		template <> void Structure :: Convert<Library> (
195		Library& dest,
196		const FileDatabase& db
197		) const
198		;
199
200		template <> void Structure :: Convert<Tex> (
201		Tex& dest,
202		const FileDatabase& db
203		) const
204		;
205
206		template <> void Structure :: Convert<Camera> (
207		Camera& dest,
208		const FileDatabase& db
209		) const
210		;
211
212		template <> void Structure :: Convert<MirrorModifierData> (
213		MirrorModifierData& dest,
214		const FileDatabase& db
215		) const
216		;
217
218	248
219	249	}
220	250	}

+520

-0

code/BlenderTessellator.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2013, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file BlenderTessellator.cpp
	41	* @brief A simple tessellation wrapper
	42	*/
	43
	44	#include "AssimpPCH.h"
	45
	46	#ifndef ASSIMP_BUILD_NO_BLEND_IMPORTER
	47
	48	#include "BlenderDNA.h"
	49	#include "BlenderScene.h"
	50	#include "BlenderBMesh.h"
	51	#include "BlenderTessellator.h"
	52
	53	static const unsigned int BLEND_TESS_MAGIC = 0x83ed9ac3;
	54
	55	#if ASSIMP_BLEND_WITH_GLU_TESSELLATE
	56
	57	namspace Assimp
	58	{
	59	template< > const std::string LogFunctions< BlenderTessellatorGL >::log_prefix = "BLEND_TESS_GL: ";
	60	}
	61
	62	using namespace Assimp;
	63	using namespace Assimp::Blender;
	64
	65	#ifndef CALLBACK
	66	#define CALLBACK
	67	#endif
	68
	69	// ------------------------------------------------------------------------------------------------
	70	BlenderTessellatorGL::BlenderTessellatorGL( BlenderBMeshConverter& converter ):
	71	converter( &converter )
	72	{
	73	}
	74
	75	// ------------------------------------------------------------------------------------------------
	76	BlenderTessellatorGL::~BlenderTessellatorGL( )
	77	{
	78	}
	79
	80	// ------------------------------------------------------------------------------------------------
	81	void BlenderTessellatorGL::Tessellate( const MLoop* polyLoop, int vertexCount, const std::vector< MVert >& vertices )
	82	{
	83	AssertVertexCount( vertexCount );
	84
	85	std::vector< VertexGL > polyLoopGL;
	86	GenerateLoopVerts( polyLoopGL, polyLoop, vertexCount, vertices );
	87
	88	TessDataGL tessData;
	89	Tesssellate( polyLoopGL, tessData );
	90
	91	TriangulateDrawCalls( tessData );
	92	}
	93
	94	// ------------------------------------------------------------------------------------------------
	95	void BlenderTessellatorGL::AssertVertexCount( int vertexCount )
	96	{
	97	if ( vertexCount <= 4 )
	98	{
	99	ThrowException( "Expected more than 4 vertices for tessellation" );
	100	}
	101	}
	102
	103	// ------------------------------------------------------------------------------------------------
	104	void BlenderTessellatorGL::GenerateLoopVerts( std::vector< VertexGL >& polyLoopGL, const MLoop* polyLoop, int vertexCount, const std::vector< MVert >& vertices )
	105	{
	106	for ( int i = 0; i < vertexCount; ++i )
	107	{
	108	const MLoop& loopItem = polyLoop[ i ];
	109	const MVert& vertex = vertices[ loopItem.v ];
	110	polyLoopGL.push_back( VertexGL( vertex.co[ 0 ], vertex.co[ 1 ], vertex.co[ 2 ], loopItem.v, BLEND_TESS_MAGIC ) );
	111	}
	112	}
	113
	114	// ------------------------------------------------------------------------------------------------
	115	void BlenderTessellatorGL::Tesssellate( std::vector< VertexGL >& polyLoopGL, TessDataGL& tessData )
	116	{
	117	GLUtesselator* tessellator = gluNewTess( );
	118	gluTessCallback( tessellator, GLU_TESS_BEGIN_DATA, reinterpret_cast< void ( CALLBACK * )( ) >( TessellateBegin ) );
	119	gluTessCallback( tessellator, GLU_TESS_END_DATA, reinterpret_cast< void ( CALLBACK * )( ) >( TessellateEnd ) );
	120	gluTessCallback( tessellator, GLU_TESS_VERTEX_DATA, reinterpret_cast< void ( CALLBACK * )( ) >( TessellateVertex ) );
	121	gluTessCallback( tessellator, GLU_TESS_COMBINE_DATA, reinterpret_cast< void ( CALLBACK * )( ) >( TessellateCombine ) );
	122	gluTessCallback( tessellator, GLU_TESS_EDGE_FLAG_DATA, reinterpret_cast< void ( CALLBACK * )( ) >( TessellateEdgeFlag ) );
	123	gluTessCallback( tessellator, GLU_TESS_ERROR_DATA, reinterpret_cast< void ( CALLBACK * )( ) >( TessellateError ) );
	124	gluTessProperty( tessellator, GLU_TESS_WINDING_RULE, GLU_TESS_WINDING_NONZERO );
	125
	126	gluTessBeginPolygon( tessellator, &tessData );
	127	gluTessBeginContour( tessellator );
	128
	129	for ( unsigned int i = 0; i < polyLoopGL.size( ); ++i )
	130	{
	131	gluTessVertex( tessellator, reinterpret_cast< GLdouble* >( &polyLoopGL[ i ] ), &polyLoopGL[ i ] );
	132	}
	133
	134	gluTessEndContour( tessellator );
	135	gluTessEndPolygon( tessellator );
	136	}
	137
	138	// ------------------------------------------------------------------------------------------------
	139	void BlenderTessellatorGL::TriangulateDrawCalls( const TessDataGL& tessData )
	140	{
	141	// NOTE - Because we are supplying a callback to GLU_TESS_EDGE_FLAG_DATA we don't technically
	142	// need support for GL_TRIANGLE_STRIP and GL_TRIANGLE_FAN but we'll keep it here in case
	143	// GLU tessellate changes or tristrips and fans are wanted.
	144	// See: http://www.opengl.org/sdk/docs/man2/xhtml/gluTessCallback.xml
	145	for ( unsigned int i = 0; i < tessData.drawCalls.size( ); ++i )
	146	{
	147	const DrawCallGL& drawCallGL = tessData.drawCalls[ i ];
	148	const VertexGL* vertices = &tessData.vertices[ drawCallGL.baseVertex ];
	149	if ( drawCallGL.drawMode == GL_TRIANGLES )
	150	{
	151	MakeFacesFromTris( vertices, drawCallGL.vertexCount );
	152	}
	153	else if ( drawCallGL.drawMode == GL_TRIANGLE_STRIP )
	154	{
	155	MakeFacesFromTriStrip( vertices, drawCallGL.vertexCount );
	156	}
	157	else if ( drawCallGL.drawMode == GL_TRIANGLE_FAN )
	158	{
	159	MakeFacesFromTriFan( vertices, drawCallGL.vertexCount );
	160	}
	161	}
	162	}
	163
	164	// ------------------------------------------------------------------------------------------------
	165	void BlenderTessellatorGL::MakeFacesFromTris( const VertexGL* vertices, int vertexCount )
	166	{
	167	int triangleCount = vertexCount / 3;
	168	for ( int i = 0; i < triangleCount; ++i )
	169	{
	170	int vertexBase = i * 3;
	171	converter->AddFace( vertices[ vertexBase + 0 ].index, vertices[ vertexBase + 1 ].index, vertices[ vertexBase + 2 ].index );
	172	}
	173	}
	174
	175	// ------------------------------------------------------------------------------------------------
	176	void BlenderTessellatorGL::MakeFacesFromTriStrip( const VertexGL* vertices, int vertexCount )
	177	{
	178	int triangleCount = vertexCount - 2;
	179	for ( int i = 0; i < triangleCount; ++i )
	180	{
	181	int vertexBase = i;
	182	converter->AddFace( vertices[ vertexBase + 0 ].index, vertices[ vertexBase + 1 ].index, vertices[ vertexBase + 2 ].index );
	183	}
	184	}
	185
	186	// ------------------------------------------------------------------------------------------------
	187	void BlenderTessellatorGL::MakeFacesFromTriFan( const VertexGL* vertices, int vertexCount )
	188	{
	189	int triangleCount = vertexCount - 2;
	190	for ( int i = 0; i < triangleCount; ++i )
	191	{
	192	int vertexBase = i;
	193	converter->AddFace( vertices[ 0 ].index, vertices[ vertexBase + 1 ].index, vertices[ vertexBase + 2 ].index );
	194	}
	195	}
	196
	197	// ------------------------------------------------------------------------------------------------
	198	void BlenderTessellatorGL::TessellateBegin( GLenum drawModeGL, void* userData )
	199	{
	200	TessDataGL& tessData = reinterpret_cast< TessDataGL >( userData );
	201	tessData.drawCalls.push_back( DrawCallGL( drawModeGL, tessData.vertices.size( ) ) );
	202	}
	203
	204	// ------------------------------------------------------------------------------------------------
	205	void BlenderTessellatorGL::TessellateEnd( void* )
	206	{
	207	// Do nothing
	208	}
	209
	210	// ------------------------------------------------------------------------------------------------
	211	void BlenderTessellatorGL::TessellateVertex( const void* vtxData, void* userData )
	212	{
	213	TessDataGL& tessData = reinterpret_cast< TessDataGL >( userData );
	214
	215	const VertexGL& vertex = reinterpret_cast< const VertexGL >( vtxData );
	216	if ( vertex.magic != BLEND_TESS_MAGIC )
	217	{
	218	ThrowException( "Point returned by GLU Tessellate was probably not one of ours. This indicates we need a new way to store vertex information" );
	219	}
	220	tessData.vertices.push_back( vertex );
	221	if ( tessData.drawCalls.size( ) == 0 )
	222	{
	223	ThrowException( "\"Vertex\" callback received before \"Begin\"" );
	224	}
	225	++( tessData.drawCalls.back( ).vertexCount );
	226	}
	227
	228	// ------------------------------------------------------------------------------------------------
	229	void BlenderTessellatorGL::TessellateCombine( const GLdouble intersection[ 3 ], const GLdouble* [ 4 ], const GLfloat [ 4 ], GLdouble** out, void* userData )
	230	{
	231	ThrowException( "Intersected polygon loops are not yet supported" );
	232	}
	233
	234	// ------------------------------------------------------------------------------------------------
	235	void BlenderTessellatorGL::TessellateEdgeFlag( GLboolean, void* )
	236	{
	237	// Do nothing
	238	}
	239
	240	// ------------------------------------------------------------------------------------------------
	241	void BlenderTessellatorGL::TessellateError( GLenum errorCode, void* )
	242	{
	243	ThrowException( reinterpret_cast< const char* >( gluErrorString( errorCode ) ) );
	244	}
	245
	246	#endif // ASSIMP_BLEND_WITH_GLU_TESSELLATE
	247
	248	#if ASSIMP_BLEND_WITH_POLY_2_TRI
	249
	250	namespace Assimp
	251	{
	252	template< > const std::string LogFunctions< BlenderTessellatorP2T >::log_prefix = "BLEND_TESS_P2T: ";
	253	}
	254
	255	using namespace Assimp;
	256	using namespace Assimp::Blender;
	257
	258	// ------------------------------------------------------------------------------------------------
	259	BlenderTessellatorP2T::BlenderTessellatorP2T( BlenderBMeshConverter& converter ):
	260	converter( &converter )
	261	{
	262	}
	263
	264	// ------------------------------------------------------------------------------------------------
	265	BlenderTessellatorP2T::~BlenderTessellatorP2T( )
	266	{
	267	}
	268
	269	// ------------------------------------------------------------------------------------------------
	270	void BlenderTessellatorP2T::Tessellate( const MLoop* polyLoop, int vertexCount, const std::vector< MVert >& vertices )
	271	{
	272	AssertVertexCount( vertexCount );
	273
	274	// NOTE - We have to hope that points in a Blender polygon are roughly on the same plane.
	275	// There may be some triangulation artifacts if they are wildly different.
	276
	277	std::vector< PointP2T > points;
	278	Copy3DVertices( polyLoop, vertexCount, vertices, points );
	279
	280	PlaneP2T plane = FindLLSQPlane( points );
	281
	282	aiMatrix4x4 transform = GeneratePointTransformMatrix( plane );
	283
	284	TransformAndFlattenVectices( transform, points );
	285
	286	std::vector< p2t::Point* > pointRefs;
	287	ReferencePoints( points, pointRefs );
	288
	289	p2t::CDT cdt( pointRefs );
	290
	291	cdt.Triangulate( );
	292	std::vector< p2t::Triangle* > triangles = cdt.GetTriangles( );
	293
	294	MakeFacesFromTriangles( triangles );
	295	}
	296
	297	// ------------------------------------------------------------------------------------------------
	298	void BlenderTessellatorP2T::AssertVertexCount( int vertexCount )
	299	{
	300	if ( vertexCount <= 4 )
	301	{
	302	ThrowException( "Expected more than 4 vertices for tessellation" );
	303	}
	304	}
	305
	306	// ------------------------------------------------------------------------------------------------
	307	void BlenderTessellatorP2T::Copy3DVertices( const MLoop* polyLoop, int vertexCount, const std::vector< MVert >& vertices, std::vector< PointP2T >& points ) const
	308	{
	309	points.resize( vertexCount );
	310	for ( int i = 0; i < vertexCount; ++i )
	311	{
	312	const MLoop& loop = polyLoop[ i ];
	313	const MVert& vert = vertices[ loop.v ];
	314
	315	PointP2T& point = points[ i ];
	316	point.point3D.Set( vert.co[ 0 ], vert.co[ 1 ], vert.co[ 2 ] );
	317	point.index = loop.v;
	318	point.magic = BLEND_TESS_MAGIC;
	319	}
	320	}
	321
	322	// ------------------------------------------------------------------------------------------------
	323	aiMatrix4x4 BlenderTessellatorP2T::GeneratePointTransformMatrix( const Blender::PlaneP2T& plane ) const
	324	{
	325	aiVector3D sideA( 1.0f, 0.0f, 0.0f );
	326	if ( fabs( plane.normal * sideA ) > 0.999f )
	327	{
	328	sideA = aiVector3D( 0.0f, 1.0f, 0.0f );
	329	}
	330
	331	aiVector3D sideB( plane.normal ^ sideA );
	332	sideB.Normalize( );
	333	sideA = sideB ^ plane.normal;
	334
	335	aiMatrix4x4 result;
	336	result.a1 = sideA.x;
	337	result.a2 = sideA.y;
	338	result.a3 = sideA.z;
	339	result.b1 = sideB.x;
	340	result.b2 = sideB.y;
	341	result.b3 = sideB.z;
	342	result.c1 = plane.normal.x;
	343	result.c2 = plane.normal.y;
	344	result.c3 = plane.normal.z;
	345	result.a4 = plane.centre.x;
	346	result.b4 = plane.centre.y;
	347	result.c4 = plane.centre.z;
	348	result.Inverse( );
	349
	350	return result;
	351	}
	352
	353	// ------------------------------------------------------------------------------------------------
	354	void BlenderTessellatorP2T::TransformAndFlattenVectices( const aiMatrix4x4& transform, std::vector< Blender::PointP2T >& vertices ) const
	355	{
	356	for ( unsigned int i = 0; i < vertices.size( ); ++i )
	357	{
	358	PointP2T& point = vertices[ i ];
	359	point.point3D = transform * point.point3D;
	360	point.point2D.set( point.point3D.y, point.point3D.z );
	361	}
	362	}
	363
	364	// ------------------------------------------------------------------------------------------------
	365	void BlenderTessellatorP2T::ReferencePoints( std::vector< Blender::PointP2T >& points, std::vector< p2t::Point* >& pointRefs ) const
	366	{
	367	pointRefs.resize( points.size( ) );
	368	for ( unsigned int i = 0; i < points.size( ); ++i )
	369	{
	370	pointRefs[ i ] = &points[ i ].point2D;
	371	}
	372	}
	373
	374	// ------------------------------------------------------------------------------------------------
	375	// Yes this is filthy... but we have no choice
	376	#define OffsetOf( Class, Member ) ( static_cast< unsigned int >( \
	377	reinterpret_cast<uint8_t>(&( reinterpret_cast< Class >( NULL )->*( &Class::Member ) )) - \
	378	static_cast<uint8_t*>(NULL) ) )
	379
	380	inline PointP2T& BlenderTessellatorP2T::GetActualPointStructure( p2t::Point& point ) const
	381	{
	382	unsigned int pointOffset = OffsetOf( PointP2T, point2D );
	383	PointP2T& pointStruct = reinterpret_cast< PointP2T >( reinterpret_cast< char* >( &point ) - pointOffset );
	384	if ( pointStruct.magic != static_cast<int>( BLEND_TESS_MAGIC ) )
	385	{
	386	ThrowException( "Point returned by poly2tri was probably not one of ours. This indicates we need a new way to store vertex information" );
	387	}
	388	return pointStruct;
	389	}
	390
	391	// ------------------------------------------------------------------------------------------------
	392	void BlenderTessellatorP2T::MakeFacesFromTriangles( std::vector< p2t::Triangle* >& triangles ) const
	393	{
	394	for ( unsigned int i = 0; i < triangles.size( ); ++i )
	395	{
	396	p2t::Triangle& Triangle = *triangles[ i ];
	397
	398	PointP2T& pointA = GetActualPointStructure( *Triangle.GetPoint( 0 ) );
	399	PointP2T& pointB = GetActualPointStructure( *Triangle.GetPoint( 1 ) );
	400	PointP2T& pointC = GetActualPointStructure( *Triangle.GetPoint( 2 ) );
	401
	402	converter->AddFace( pointA.index, pointB.index, pointC.index );
	403	}
	404	}
	405
	406	// ------------------------------------------------------------------------------------------------
	407	inline float p2tMax( float a, float b )
	408	{
	409	return a > b ? a : b;
	410	}
	411
	412	// ------------------------------------------------------------------------------------------------
	413	// Adapted from: http://missingbytes.blogspot.co.uk/2012/06/fitting-plane-to-point-cloud.html
	414	float BlenderTessellatorP2T::FindLargestMatrixElem( const aiMatrix3x3& mtx ) const
	415	{
	416	float result = 0.0f;
	417
	418	for ( int x = 0; x < 3; ++x )
	419	{
	420	for ( int y = 0; y < 3; ++y )
	421	{
	422	result = p2tMax( fabs( mtx[ x ][ y ] ), result );
	423	}
	424	}
	425
	426	return result;
	427	}
	428
	429	// ------------------------------------------------------------------------------------------------
	430	// Aparently Assimp doesn't have matrix scaling
	431	aiMatrix3x3 BlenderTessellatorP2T::ScaleMatrix( const aiMatrix3x3& mtx, float scale ) const
	432	{
	433	aiMatrix3x3 result;
	434
	435	for ( int x = 0; x < 3; ++x )
	436	{
	437	for ( int y = 0; y < 3; ++y )
	438	{
	439	result[ x ][ y ] = mtx[ x ][ y ] * scale;
	440	}
	441	}
	442
	443	return result;
	444	}
	445
	446
	447	// ------------------------------------------------------------------------------------------------
	448	// Adapted from: http://missingbytes.blogspot.co.uk/2012/06/fitting-plane-to-point-cloud.html
	449	aiVector3D BlenderTessellatorP2T::GetEigenVectorFromLargestEigenValue( const aiMatrix3x3& mtx ) const
	450	{
	451	float scale = FindLargestMatrixElem( mtx );
	452	aiMatrix3x3 mc = ScaleMatrix( mtx, 1.0f / scale );
	453	mc = mc * mc * mc;
	454
	455	aiVector3D v( 1.0f );
	456	aiVector3D lastV = v;
	457	for ( int i = 0; i < 100; ++i )
	458	{
	459	v = mc * v;
	460	v.Normalize( );
	461	if ( ( v - lastV ).SquareLength( ) < 1e-16f )
	462	{
	463	break;
	464	}
	465	lastV = v;
	466	}
	467	return v;
	468	}
	469
	470	// ------------------------------------------------------------------------------------------------
	471	// Adapted from: http://missingbytes.blogspot.co.uk/2012/06/fitting-plane-to-point-cloud.html
	472	PlaneP2T BlenderTessellatorP2T::FindLLSQPlane( const std::vector< PointP2T >& points ) const
	473	{
	474	PlaneP2T result;
	475
	476	aiVector3D sum( 0.0f );
	477	for ( unsigned int i = 0; i < points.size( ); ++i )
	478	{
	479	sum += points[ i ].point3D;
	480	}
	481	result.centre = sum * ( 1.0f / points.size( ) );
	482
	483	float sumXX = 0.0f;
	484	float sumXY = 0.0f;
	485	float sumXZ = 0.0f;
	486	float sumYY = 0.0f;
	487	float sumYZ = 0.0f;
	488	float sumZZ = 0.0f;
	489	for ( unsigned int i = 0; i < points.size( ); ++i )
	490	{
	491	aiVector3D offset = points[ i ].point3D - result.centre;
	492	sumXX += offset.x * offset.x;
	493	sumXY += offset.x * offset.y;
	494	sumXZ += offset.x * offset.z;
	495	sumYY += offset.y * offset.y;
	496	sumYZ += offset.y * offset.z;
	497	sumZZ += offset.z * offset.z;
	498	}
	499
	500	aiMatrix3x3 mtx( sumXX, sumXY, sumXZ, sumXY, sumYY, sumYZ, sumXZ, sumYZ, sumZZ );
	501
	502	float det = mtx.Determinant( );
	503	if ( det == 0.0f )
	504	{
	505	result.normal = aiVector3D( 0.0f );
	506	}
	507	else
	508	{
	509	aiMatrix3x3 invMtx = mtx;
	510	invMtx.Inverse( );
	511	result.normal = GetEigenVectorFromLargestEigenValue( invMtx );
	512	}
	513
	514	return result;
	515	}
	516
	517	#endif // ASSIMP_BLEND_WITH_POLY_2_TRI
	518
	519	#endif // ASSIMP_BUILD_NO_BLEND_IMPORTER

+208

-0

code/BlenderTessellator.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2013, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file BlenderTessellator.h
	41	* @brief A simple tessellation wrapper
	42	*/
	43	#ifndef INCLUDED_AI_BLEND_TESSELLATOR_H
	44	#define INCLUDED_AI_BLEND_TESSELLATOR_H
	45
	46	// Use these to toggle between GLU Tessellate or poly2tri
	47	// Note (acg) keep GLU Tesselate disabled by default - if it is turned on,
	48	// assimp needs to be linked against GLU, which is currently not yet
	49	// made configurable in CMake and potentially not wanted by most users
	50	// as it requires a Gl environment.
	51	#ifndef ASSIMP_BLEND_WITH_GLU_TESSELLATE
	52	# define ASSIMP_BLEND_WITH_GLU_TESSELLATE 0
	53	#endif
	54
	55	#ifndef ASSIMP_BLEND_WITH_POLY_2_TRI
	56	# define ASSIMP_BLEND_WITH_POLY_2_TRI 1
	57	#endif
	58
	59	#include "LogAux.h"
	60
	61	#if ASSIMP_BLEND_WITH_GLU_TESSELLATE
	62
	63	#if defined( WIN32 ) \|\| defined( _WIN32 ) \|\| defined( _MSC_VER )
	64	#include <windows.h>
	65	#endif
	66	#include <GL/glu.h>
	67
	68	namespace Assimp
	69	{
	70	class BlenderBMeshConverter;
	71
	72	// TinyFormatter.h
	73	namespace Formatter
	74	{
	75	template < typename T,typename TR, typename A > class basic_formatter;
	76	typedef class basic_formatter< char, std::char_traits< char >, std::allocator< char > > format;
	77	}
	78
	79	// BlenderScene.h
	80	namespace Blender
	81	{
	82	struct MLoop;
	83	struct MVert;
	84
	85	struct VertexGL
	86	{
	87	GLdouble X;
	88	GLdouble Y;
	89	GLdouble Z;
	90	int index;
	91	int magic;
	92
	93	VertexGL( GLdouble X, GLdouble Y, GLdouble Z, int index, int magic ): X( X ), Y( Y ), Z( Z ), index( index ), magic( magic ) { }
	94	};
	95
	96	struct DrawCallGL
	97	{
	98	GLenum drawMode;
	99	int baseVertex;
	100	int vertexCount;
	101
	102	DrawCallGL( GLenum drawMode, int baseVertex ): drawMode( drawMode ), baseVertex( baseVertex ), vertexCount( 0 ) { }
	103	};
	104
	105	struct TessDataGL
	106	{
	107	std::vector< DrawCallGL > drawCalls;
	108	std::vector< VertexGL > vertices;
	109	};
	110	}
	111
	112	class BlenderTessellatorGL: public LogFunctions< BlenderTessellatorGL >
	113	{
	114	public:
	115	BlenderTessellatorGL( BlenderBMeshConverter& converter );
	116	~BlenderTessellatorGL( );
	117
	118	void Tessellate( const Blender::MLoop* polyLoop, int vertexCount, const std::vector< Blender::MVert >& vertices );
	119
	120	private:
	121	void AssertVertexCount( int vertexCount );
	122	void GenerateLoopVerts( std::vector< Blender::VertexGL >& polyLoopGL, const Blender::MLoop* polyLoop, int vertexCount, const std::vector< Blender::MVert >& vertices );
	123	void Tesssellate( std::vector< Blender::VertexGL >& polyLoopGL, Blender::TessDataGL& tessData );
	124	void TriangulateDrawCalls( const Blender::TessDataGL& tessData );
	125	void MakeFacesFromTris( const Blender::VertexGL* vertices, int vertexCount );
	126	void MakeFacesFromTriStrip( const Blender::VertexGL* vertices, int vertexCount );
	127	void MakeFacesFromTriFan( const Blender::VertexGL* vertices, int vertexCount );
	128
	129	static void TessellateBegin( GLenum drawModeGL, void* userData );
	130	static void TessellateEnd( void* userData );
	131	static void TessellateVertex( const void* vtxData, void* userData );
	132	static void TessellateCombine( const GLdouble intersection[ 3 ], const GLdouble* [ 4 ], const GLfloat [ 4 ], GLdouble** out, void* userData );
	133	static void TessellateEdgeFlag( GLboolean edgeFlag, void* userData );
	134	static void TessellateError( GLenum errorCode, void* userData );
	135
	136	BlenderBMeshConverter* converter;
	137	};
	138	} // end of namespace Assimp
	139
	140	#endif // ASSIMP_BLEND_WITH_GLU_TESSELLATE
	141
	142	#if ASSIMP_BLEND_WITH_POLY_2_TRI
	143
	144	#include "../contrib/poly2tri/poly2tri/poly2tri.h"
	145
	146	namespace Assimp
	147	{
	148	class BlenderBMeshConverter;
	149
	150	// TinyFormatter.h
	151	namespace Formatter
	152	{
	153	template < typename T,typename TR, typename A > class basic_formatter;
	154	typedef class basic_formatter< char, std::char_traits< char >, std::allocator< char > > format;
	155	}
	156
	157	// BlenderScene.h
	158	namespace Blender
	159	{
	160	struct MLoop;
	161	struct MVert;
	162
	163	struct PointP2T
	164	{
	165	aiVector3D point3D;
	166	p2t::Point point2D;
	167	int magic;
	168	int index;
	169	};
	170
	171	struct PlaneP2T
	172	{
	173	aiVector3D centre;
	174	aiVector3D normal;
	175	};
	176	}
	177
	178	class BlenderTessellatorP2T: public LogFunctions< BlenderTessellatorP2T >
	179	{
	180	public:
	181	BlenderTessellatorP2T( BlenderBMeshConverter& converter );
	182	~BlenderTessellatorP2T( );
	183
	184	void Tessellate( const Blender::MLoop* polyLoop, int vertexCount, const std::vector< Blender::MVert >& vertices );
	185
	186	private:
	187	void AssertVertexCount( int vertexCount );
	188	void Copy3DVertices( const Blender::MLoop* polyLoop, int vertexCount, const std::vector< Blender::MVert >& vertices, std::vector< Blender::PointP2T >& targetVertices ) const;
	189	aiMatrix4x4 GeneratePointTransformMatrix( const Blender::PlaneP2T& plane ) const;
	190	void TransformAndFlattenVectices( const aiMatrix4x4& transform, std::vector< Blender::PointP2T >& vertices ) const;
	191	void ReferencePoints( std::vector< Blender::PointP2T >& points, std::vector< p2t::Point* >& pointRefs ) const;
	192	inline Blender::PointP2T& GetActualPointStructure( p2t::Point& point ) const;
	193	void MakeFacesFromTriangles( std::vector< p2t::Triangle* >& triangles ) const;
	194
	195	// Adapted from: http://missingbytes.blogspot.co.uk/2012/06/fitting-plane-to-point-cloud.html
	196	float FindLargestMatrixElem( const aiMatrix3x3& mtx ) const;
	197	aiMatrix3x3 ScaleMatrix( const aiMatrix3x3& mtx, float scale ) const;
	198	aiVector3D GetEigenVectorFromLargestEigenValue( const aiMatrix3x3& mtx ) const;
	199	Blender::PlaneP2T FindLLSQPlane( const std::vector< Blender::PointP2T >& points ) const;
	200
	201	BlenderBMeshConverter* converter;
	202	};
	203	} // end of namespace Assimp
	204
	205	#endif // ASSIMP_BLEND_WITH_POLY_2_TRI
	206
	207	#endif // INCLUDED_AI_BLEND_TESSELLATOR_H

-3

code/BlobIOSystem.h less more

87	87
88	88
89	89	// -------------------------------------------------------------------
90		virtual size_t Read(void* pvBuffer,
91		size_t pSize,
92		size_t pCount)
	90	virtual size_t Read( void *,
	91	size_t,
	92	size_t )
93	93	{
94	94	return 0;
95	95	}

+106

-41

code/CMakeLists.txt less more

3	3	# 3) Add libassimp using the file lists (eliminates duplication of file names between
4	4	# source groups and library command)
5	5	#
	6	cmake_minimum_required( VERSION 2.6 )
6	7	SET( HEADER_PATH ../include/assimp )
7	8
8	9	SET( COMPILER_HEADERS
9	10	${HEADER_PATH}/Compiler/pushpack1.h
10	11	${HEADER_PATH}/Compiler/poppack1.h
11		pstdint.h
	12	${HEADER_PATH}/Compiler/pstdint.h
12	13	)
13	14	SOURCE_GROUP( Compiler FILES ${COMPILER_HEADERS})
14	15

33	34	${HEADER_PATH}/quaternion.h
34	35	${HEADER_PATH}/quaternion.inl
35	36	${HEADER_PATH}/scene.h
	37	${HEADER_PATH}/metadata.h
36	38	${HEADER_PATH}/texture.h
37	39	${HEADER_PATH}/types.h
38	40	${HEADER_PATH}/vector2.h

56	58
57	59	SET( Core_SRCS
58	60	Assimp.cpp
59		AssimpPCH.cpp
60		AssimpPCH.h
61	61	)
62	62
63	63	SET( Boost_SRCS

76	76
77	77	SET( Logging_SRCS
78	78	${HEADER_PATH}/DefaultLogger.hpp
79		${HEADER_PATH}/IOStream.hpp
80	79	${HEADER_PATH}/LogStream.hpp
81	80	${HEADER_PATH}/Logger.hpp
82	81	${HEADER_PATH}/NullLogger.hpp
83	82	Win32DebugLogStream.h
84	83	DefaultLogger.cpp
85	84	FileLogStream.h
	85	StdOStreamLogStream.h
86	86	)
87	87	SOURCE_GROUP(Logging FILES ${Logging_SRCS})
88	88

107	107	Hash.h
108	108	Importer.cpp
109	109	IFF.h
	110	MemoryIOWrapper.h
110	111	ParsingUtils.h
111		StdOStreamLogStream.h
112	112	StreamReader.h
113	113	StringComparison.h
114	114	SGSpatialSort.cpp

140	140	TinyFormatter.h
141	141	Profiler.h
142	142	LogAux.h
	143	Bitmap.cpp
	144	Bitmap.h
143	145	)
144	146	SOURCE_GROUP(Common FILES ${Common_SRCS})
145	147

236	238	)
237	239	SOURCE_GROUP( LWS FILES ${LWS_SRCS})
238	240
239		SET ( M3_SRCS
240		M3Importer.cpp
241		M3Importer.h
242		)
243		SOURCE_GROUP( M3 FILES ${M3_SRCS} )
	241
244	242
245	243	SET( MD2_SRCS
246	244	MD2FileData.h

322	320	SOURCE_GROUP( Obj FILES ${Obj_SRCS})
323	321
324	322	SET( Ogre_SRCS
325		OgreImporter.hpp
326		OgreXmlHelper.hpp
	323	OgreImporter.h
	324	OgreStructs.h
	325	OgreParsingUtils.h
	326	OgreBinarySerializer.h
	327	OgreXmlSerializer.h
327	328	OgreImporter.cpp
	329	OgreStructs.cpp
	330	OgreBinarySerializer.cpp
	331	OgreXmlSerializer.cpp
328	332	OgreMaterial.cpp
329		OgreMesh.cpp
330		OgreSkeleton.cpp
331	333	)
332	334	SOURCE_GROUP( Ogre FILES ${Ogre_SRCS})
333	335

366	368	BlenderIntermediate.h
367	369	BlenderModifier.h
368	370	BlenderModifier.cpp
	371	BlenderBMesh.h
	372	BlenderBMesh.cpp
	373	BlenderTessellator.h
	374	BlenderTessellator.cpp
369	375	)
370	376	SOURCE_GROUP( BLENDER FILES ${BLENDER_SRCS})
371	377

380	386	IFCMaterial.cpp
381	387	IFCProfile.cpp
382	388	IFCCurve.cpp
	389	IFCBoolean.cpp
	390	IFCOpenings.cpp
383	391	STEPFile.h
384	392	STEPFileReader.h
385	393	STEPFileReader.cpp
	394	STEPFileEncoding.cpp
	395	STEPFileEncoding.h
386	396	)
387	397	SOURCE_GROUP( IFC FILES ${IFC_SRCS})
388	398

391	401	XGLLoader.h
392	402	)
393	403	SOURCE_GROUP( XGL FILES ${XGL_SRCS})
	404
	405
	406	SET(FBX_SRCS
	407	FBXImporter.cpp
	408	FBXCompileConfig.h
	409	FBXImporter.h
	410	FBXParser.cpp
	411	FBXParser.h
	412	FBXTokenizer.cpp
	413	FBXTokenizer.h
	414	FBXImportSettings.h
	415	FBXConverter.h
	416	FBXConverter.cpp
	417	FBXUtil.h
	418	FBXUtil.cpp
	419	FBXDocument.h
	420	FBXDocument.cpp
	421	FBXProperties.h
	422	FBXProperties.cpp
	423	FBXMeshGeometry.cpp
	424	FBXMaterial.cpp
	425	FBXModel.cpp
	426	FBXAnimation.cpp
	427	FBXNodeAttribute.cpp
	428	FBXDeformer.cpp
	429	FBXBinaryTokenizer.cpp
	430	FBXDocumentUtil.cpp
	431	)
	432	SOURCE_GROUP( FBX FILES ${FBX_SRCS})
394	433
395	434
396	435	SET( PostProcessing_SRCS

428	467	SortByPTypeProcess.h
429	468	SplitLargeMeshes.cpp
430	469	SplitLargeMeshes.h
431		TerragenLoader.cpp
432		TerragenLoader.h
433	470	TextureTransform.cpp
434	471	TextureTransform.h
435	472	TriangulateProcess.cpp

487	524	)
488	525	SOURCE_GROUP( STL FILES ${STL_SRCS})
489	526
	527	SET( Terragen_SRCS
	528	TerragenLoader.cpp
	529	TerragenLoader.h
	530	)
	531	SOURCE_GROUP( Terragen FILES ${Terragen_SRCS})
	532
490	533	SET( Unreal_SRCS
491	534	UnrealLoader.cpp
492	535	UnrealLoader.h

565	608
566	609
567	610	# VC2010 fixes
568		OPTION( VC10_STDINT_FIX "Fix for VC10 Compiler regarding pstdint.h redefinition errors" OFF )
569		if( VC10_STDINT_FIX )
570		ADD_DEFINITIONS( -D_STDINT )
571		endif( VC10_STDINT_FIX )
	611	if(MSVC10)
	612	OPTION( VC10_STDINT_FIX "Fix for VC10 Compiler regarding pstdint.h redefinition errors" OFF )
	613	if( VC10_STDINT_FIX )
	614	ADD_DEFINITIONS( -D_STDINT )
	615	endif( VC10_STDINT_FIX )
	616	endif(MSVC10)
572	617
573	618	ADD_DEFINITIONS( -DASSIMP_BUILD_DLL_EXPORT )
574	619
575		if ( MSVC80 OR MSVC90 OR MSVC10 )
	620	if ( MSVC )
576	621	ADD_DEFINITIONS( -D_SCL_SECURE_NO_WARNINGS )
577	622	ADD_DEFINITIONS( -D_CRT_SECURE_NO_WARNINGS )
578		endif ( MSVC80 OR MSVC90 OR MSVC10 )
	623	endif ( MSVC )
579	624
580	625	if (UNZIP_FOUND)
581	626	SET (unzip_compile_SRCS "")

583	628	SET (unzip_compile_SRCS ${unzip_SRCS})
584	629	endif (UNZIP_FOUND)
585	630
586		SET( assim_src
	631	SET( assimp_src
587	632	# Assimp Files
588	633	${Core_SRCS}
589	634	${Common_SRCS}

604	649	${Irr_SRCS}
605	650	${LWO_SRCS}
606	651	${LWS_SRCS}
607		${M3_SRCS}
608	652	${MD2_SRCS}
609	653	${MD3_SRCS}
610	654	${MD5_SRCS}

621	665	${Raw_SRCS}
622	666	${SMD_SRCS}
623	667	${STL_SRCS}
	668	${Terragen_SRCS}
624	669	${Unreal_SRCS}
625	670	${XFile_SRCS}
626	671	${Extra_SRCS}

630	675	${NDO_SRCS}
631	676	${IFC_SRCS}
632	677	${XGL_SRCS}
	678	${FBX_SRCS}
633	679
634	680	# Third-party libraries
635	681	${IrrXML_SRCS}

642	688
643	689	${PUBLIC_HEADERS}
644	690	${COMPILER_HEADERS}
645		)
646		IF ( BUILD_STATIC_LIB )
647		ADD_LIBRARY( assimp STATIC
648		${assim_src}
649		)
650		ELSE ( BUILD_STATIC_LIB )
651		ADD_LIBRARY( assimp SHARED
652		${assim_src}
653		)
654		ENDIF ( BUILD_STATIC_LIB )
655
656		SET_PROPERTY(TARGET assimp PROPERTY DEBUG_POSTFIX ${DEBUG_POSTFIX})
	691
	692	# Old precompiled header
	693	# (removed because the precompiled header is not updated when visual studio switch configuration which leads to failed compilation.
	694	# Moreover it's a drag to recompile assimp entirely each time a modification is made to one of the included header, which is definitely counter-productive.)
	695	AssimpPCH.cpp
	696	)
	697
	698	#ADD_MSVC_PRECOMPILED_HEADER("AssimpPCH.h" "AssimpPCH.cpp" assimp_src)
	699
	700	ADD_LIBRARY( assimp ${assimp_src} )
	701
	702	SET_PROPERTY(TARGET assimp PROPERTY DEBUG_POSTFIX ${ASSIMP_DEBUG_POSTFIX})
657	703
658	704	TARGET_LINK_LIBRARIES(assimp ${ZLIB_LIBRARIES})
659	705	SET_TARGET_PROPERTIES( assimp PROPERTIES
660	706	VERSION ${ASSIMP_VERSION}
661	707	SOVERSION ${ASSIMP_SOVERSION} # use full version
662	708	OUTPUT_NAME assimp${ASSIMP_LIBRARY_SUFFIX}
663		CLEAN_DIRECT_OUTPUT 1
664		)
	709	)
	710
	711	if (APPLE)
	712	SET_TARGET_PROPERTIES( assimp PROPERTIES INSTALL_NAME_DIR "${CMAKE_INSTALL_PREFIX}/${LIB_INSTALL_DIR}")
	713	endif()
	714
665	715	# Build against external unzip, or add ../contrib/unzip so
666	716	# assimp can #include "unzip.h"
667	717	if (UNZIP_FOUND)

671	721	INCLUDE_DIRECTORIES("../contrib/unzip")
672	722	endif (UNZIP_FOUND)
673	723
674		INSTALL( TARGETS assimp DESTINATION ${LIB_INSTALL_DIR} COMPONENT ${LIBASSIMP_COMPONENT})
675		INSTALL( FILES ${PUBLIC_HEADERS} DESTINATION ${INCLUDE_INSTALL_DIR}/assimp COMPONENT ${LIBASSIMP-DEV_COMPONENT})
676		INSTALL( FILES ${COMPILER_HEADERS} DESTINATION ${INCLUDE_INSTALL_DIR}/assimp/Compiler COMPONENT ${LIBASSIMP-DEV_COMPONENT})
	724	INSTALL( TARGETS assimp
	725	LIBRARY DESTINATION ${ASSIMP_LIB_INSTALL_DIR}
	726	ARCHIVE DESTINATION ${ASSIMP_LIB_INSTALL_DIR}
	727	RUNTIME DESTINATION ${ASSIMP_BIN_INSTALL_DIR}
	728	COMPONENT ${LIBASSIMP_COMPONENT})
	729	INSTALL( FILES ${PUBLIC_HEADERS} DESTINATION ${ASSIMP_INCLUDE_INSTALL_DIR}/assimp COMPONENT assimp-dev)
	730	INSTALL( FILES ${COMPILER_HEADERS} DESTINATION ${ASSIMP_INCLUDE_INSTALL_DIR}/assimp/Compiler COMPONENT assimp-dev)
	731
	732	if(MSVC AND ASSIMP_INSTALL_PDB)
	733	install(FILES ${Assimp_BINARY_DIR}/code/Debug/assimp${ASSIMP_DEBUG_POSTFIX}.pdb
	734	DESTINATION ${ASSIMP_LIB_INSTALL_DIR}
	735	CONFIGURATIONS Debug
	736	)
	737	install(FILES ${Assimp_BINARY_DIR}/code/RelWithDebInfo/assimp.pdb
	738	DESTINATION ${ASSIMP_LIB_INSTALL_DIR}
	739	CONFIGURATIONS RelWithDebInfo
	740	)
	741	endif ()

-3

code/COBLoader.cpp less more

1044	1044	v.y = reader.GetF4();
1045	1045	}
1046	1046
1047		const size_t numfuck = reader.GetI4();
1048		msh.faces.reserve(numfuck);
1049		for(size_t i = 0; i < numfuck; ++i) {
	1047	const size_t numf = reader.GetI4();
	1048	msh.faces.reserve(numf);
	1049	for(size_t i = 0; i < numf; ++i) {
1050	1050	// XXX backface culling flag is 0x10 in flags
1051	1051
1052	1052	// hole?

-4

code/CSMLoader.cpp less more

70	70	// ------------------------------------------------------------------------------------------------
71	71	// Constructor to be privately used by Importer
72	72	CSMImporter::CSMImporter()
	73	: noSkeletonMesh()
73	74	{}
74	75
75	76	// ------------------------------------------------------------------------------------------------

103	104
104	105	// ------------------------------------------------------------------------------------------------
105	106	// Setup configuration properties for the loader
106		void CSMImporter::SetupProperties(const Importer* /pImp/)
107		{
108		// nothing to be done for the moment
	107	void CSMImporter::SetupProperties(const Importer* pImp)
	108	{
	109	noSkeletonMesh = pImp->GetPropertyInteger(AI_CONFIG_IMPORT_NO_SKELETON_MESHES,0) != 0;
109	110	}
110	111
111	112	// ------------------------------------------------------------------------------------------------

288	289
289	290	// mark the scene as incomplete and run SkeletonMeshBuilder on it
290	291	pScene->mFlags \|= AI_SCENE_FLAGS_INCOMPLETE;
291		SkeletonMeshBuilder maker(pScene,pScene->mRootNode,true);
	292
	293	if (!noSkeletonMesh) {
	294	SkeletonMeshBuilder maker(pScene,pScene->mRootNode,true);
	295	}
292	296	}
293	297
294	298	#endif // !! ASSIMP_BUILD_NO_CSM_IMPORTER

-0

code/CSMLoader.h less more

78	78	IOSystem* pIOHandler);
79	79
80	80	private:
	81
	82	bool noSkeletonMesh;
	83
81	84	}; // end of class CSMImporter
82	85	} // end of namespace Assimp
83	86	#endif // AI_AC3DIMPORTER_H_INC

+41

-15

code/CalcTangentsProcess.cpp less more

54	54	// ------------------------------------------------------------------------------------------------
55	55	// Constructor to be privately used by Importer
56	56	CalcTangentsProcess::CalcTangentsProcess()
57		{
58		this->configMaxAngle = AI_DEG_TO_RAD(45.f);
	57	: configMaxAngle( AI_DEG_TO_RAD(45.f) )
	58	, configSourceUV( 0 ) {
	59	// nothing to do here
59	60	}
60	61
61	62	// ------------------------------------------------------------------------------------------------

76	77	// Executes the post processing step on the given imported data.
77	78	void CalcTangentsProcess::SetupProperties(const Importer* pImp)
78	79	{
	80	ai_assert( NULL != pImp );
	81
79	82	// get the current value of the property
80	83	configMaxAngle = pImp->GetPropertyFloat(AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE,45.f);
81	84	configMaxAngle = std::max(std::min(configMaxAngle,45.0f),0.0f);

88	91	// Executes the post processing step on the given imported data.
89	92	void CalcTangentsProcess::Execute( aiScene* pScene)
90	93	{
91		DefaultLogger::get()->debug("CalcTangentsProcess begin");
	94	ai_assert( NULL != pScene );
	95
	96	DefaultLogger::get()->debug("CalcTangentsProcess begin");
92	97
93	98	bool bHas = false;
94		for( unsigned int a = 0; a < pScene->mNumMeshes; a++)
	99	for ( unsigned int a = 0; a < pScene->mNumMeshes; a++ ) {
95	100	if(ProcessMesh( pScene->mMeshes[a],a))bHas = true;
96
97		if (bHas)DefaultLogger::get()->info("CalcTangentsProcess finished. Tangents have been calculated");
98		else DefaultLogger::get()->debug("CalcTangentsProcess finished");
	101	}
	102
	103	if ( bHas ) {
	104	DefaultLogger::get()->info("CalcTangentsProcess finished. Tangents have been calculated");
	105	} else {
	106	DefaultLogger::get()->debug("CalcTangentsProcess finished");
	107	}
99	108	}
100	109
101	110	// ------------------------------------------------------------------------------------------------

178	187	float sx = meshTex[p1].x - meshTex[p0].x, sy = meshTex[p1].y - meshTex[p0].y;
179	188	float tx = meshTex[p2].x - meshTex[p0].x, ty = meshTex[p2].y - meshTex[p0].y;
180	189	float dirCorrection = (tx * sy - ty * sx) < 0.0f ? -1.0f : 1.0f;
181
182		// tangent points in the direction where to positive X axis of the texture coords would point in model space
183		// bitangents points along the positive Y axis of the texture coords, respectively
	190	// when t1, t2, t3 in same position in UV space, just use default UV direction.
	191	if ( 0 == sx && 0 ==sy && 0 == tx && 0 == ty ) {
	192	sx = 0.0; sy = 1.0;
	193	tx = 1.0; ty = 0.0;
	194	}
	195
	196	// tangent points in the direction where to positive X axis of the texture coord's would point in model space
	197	// bitangent's points along the positive Y axis of the texture coord's, respectively
184	198	aiVector3D tangent, bitangent;
185	199	tangent.x = (w.x * sy - v.x * ty) * dirCorrection;
186	200	tangent.y = (w.y * sy - v.y * ty) * dirCorrection;

190	204	bitangent.z = (w.z * sx - v.z * tx) * dirCorrection;
191	205
192	206	// store for every vertex of that face
193		for( unsigned int b = 0; b < face.mNumIndices; b++)
194		{
	207	for( unsigned int b = 0; b < face.mNumIndices; ++b ) {
195	208	unsigned int p = face.mIndices[b];
196	209
197	210	// project tangent and bitangent into the plane formed by the vertex' normal

199	212	aiVector3D localBitangent = bitangent - meshNorm[p] * (bitangent * meshNorm[p]);
200	213	localTangent.Normalize(); localBitangent.Normalize();
201	214
202		// and write it into the mesh.
203		meshTang[p] = localTangent;
204		meshBitang[p] = localBitangent;
	215	// reconstruct tangent/bitangent according to normal and bitangent/tangent when it's infinite or NaN.
	216	bool invalid_tangent = is_special_float(localTangent.x) \|\| is_special_float(localTangent.y) \|\| is_special_float(localTangent.z);
	217	bool invalid_bitangent = is_special_float(localBitangent.x) \|\| is_special_float(localBitangent.y) \|\| is_special_float(localBitangent.z);
	218	if (invalid_tangent != invalid_bitangent) {
	219	if (invalid_tangent) {
	220	localTangent = meshNorm[p] ^ localBitangent;
	221	localTangent.Normalize();
	222	} else {
	223	localBitangent = localTangent ^ meshNorm[p];
	224	localBitangent.Normalize();
	225	}
	226	}
	227
	228	// and write it into the mesh.
	229	meshTang[ p ] = localTangent;
	230	meshBitang[ p ] = localBitangent;
205	231	}
206	232	}
207	233

+276

-61

code/ColladaExporter.cpp less more

43	43	#ifndef ASSIMP_BUILD_NO_COLLADA_EXPORTER
44	44	#include "ColladaExporter.h"
45	45
	46	#include "Bitmap.h"
	47	#include "fast_atof.h"
	48	#include "SceneCombiner.h"
	49
	50	#include <ctime>
	51	#include <set>
	52
46	53	using namespace Assimp;
47	54
48	55	namespace Assimp

52	59	// Worker function for exporting a scene to Collada. Prototyped and registered in Exporter.cpp
53	60	void ExportSceneCollada(const char* pFile,IOSystem* pIOSystem, const aiScene* pScene)
54	61	{
	62	std::string path = "";
	63	std::string file = pFile;
	64
	65	// We need to test both types of folder separators because pIOSystem->getOsSeparator() is not reliable.
	66	// Moreover, the path given by some applications is not even consistent with the OS specific type of separator.
	67	const char* end_path = std::max(strrchr(pFile, '\\'), strrchr(pFile, '/'));
	68
	69	if(end_path != NULL) {
	70	path = std::string(pFile, end_path + 1 - pFile);
	71	file = file.substr(end_path + 1 - pFile, file.npos);
	72
	73	std::size_t pos = file.find_last_of('.');
	74	if(pos != file.npos) {
	75	file = file.substr(0, pos);
	76	}
	77	}
	78
55	79	// invoke the exporter
56		ColladaExporter iDoTheExportThing( pScene);
	80	ColladaExporter iDoTheExportThing( pScene, pIOSystem, path, file);
57	81
58	82	// we're still here - export successfully completed. Write result to the given IOSYstem
59	83	boost::scoped_ptr<IOStream> outfile (pIOSystem->Open(pFile,"wt"));
	84	if(outfile == NULL) {
	85	throw DeadlyExportError("could not open output .dae file: " + std::string(pFile));
	86	}
60	87
61	88	// XXX maybe use a small wrapper around IOStream that behaves like std::stringstream in order to avoid the extra copy.
62	89	outfile->Write( iDoTheExportThing.mOutput.str().c_str(), static_cast<size_t>(iDoTheExportThing.mOutput.tellp()),1);

67	94
68	95	// ------------------------------------------------------------------------------------------------
69	96	// Constructor for a specific scene to export
70		ColladaExporter::ColladaExporter( const aiScene* pScene)
	97	ColladaExporter::ColladaExporter( const aiScene* pScene, IOSystem* pIOSystem, const std::string& path, const std::string& file) : mIOSystem(pIOSystem), mPath(path), mFile(file)
71	98	{
72	99	// make sure that all formatting happens using the standard, C locale and not the user's current locale
73	100	mOutput.imbue( std::locale("C") );
74	101
75	102	mScene = pScene;
	103	mSceneOwned = false;
76	104
77	105	// set up strings
78	106	endstr = "\n";
79	107
80	108	// start writing
81	109	WriteFile();
	110	}
	111
	112	// ------------------------------------------------------------------------------------------------
	113	// Destructor
	114	ColladaExporter::~ColladaExporter()
	115	{
	116	if(mSceneOwned) {
	117	delete mScene;
	118	}
82	119	}
83	120
84	121	// ------------------------------------------------------------------------------------------------

91	128	mOutput << "<COLLADA xmlns=\"http://www.collada.org/2005/11/COLLADASchema\" version=\"1.4.1\">" << endstr;
92	129	PushTag();
93	130
	131	WriteTextures();
94	132	WriteHeader();
95	133
96		WriteMaterials();
	134	WriteMaterials();
97	135	WriteGeometryLibrary();
98	136
99	137	WriteSceneLibrary();
100	138
101		// useless Collada bullshit at the end, just in case we haven't had enough indirections, yet.
	139	// useless Collada fu at the end, just in case we haven't had enough indirections, yet.
102	140	mOutput << startstr << "<scene>" << endstr;
103	141	PushTag();
104		mOutput << startstr << "<instance_visual_scene url=\"#myScene\" />" << endstr;
	142	mOutput << startstr << "<instance_visual_scene url=\"#" + std::string(mScene->mRootNode->mName.C_Str()) + "\" />" << endstr;
105	143	PopTag();
106	144	mOutput << startstr << "</scene>" << endstr;
107	145	PopTag();

112	150	// Writes the asset header
113	151	void ColladaExporter::WriteHeader()
114	152	{
115		// Dummy stuff. Nobody actually cares for it anyways
	153	static const float epsilon = 0.000001f;
	154	static const aiQuaternion x_rot(aiMatrix3x3(
	155	0, -1, 0,
	156	1, 0, 0,
	157	0, 0, 1));
	158	static const aiQuaternion y_rot(aiMatrix3x3(
	159	1, 0, 0,
	160	0, 1, 0,
	161	0, 0, 1));
	162	static const aiQuaternion z_rot(aiMatrix3x3(
	163	1, 0, 0,
	164	0, 0, 1,
	165	0, -1, 0));
	166
	167	static const unsigned int date_nb_chars = 20;
	168	char date_str[date_nb_chars];
	169	std::time_t date = std::time(NULL);
	170	std::strftime(date_str, date_nb_chars, "%Y-%m-%dT%H:%M:%S", std::localtime(&date));
	171
	172	std::string scene_name = mScene->mRootNode->mName.C_Str();
	173
	174	aiVector3D scaling;
	175	aiQuaternion rotation;
	176	aiVector3D position;
	177	mScene->mRootNode->mTransformation.Decompose(scaling, rotation, position);
	178
	179	bool add_root_node = false;
	180
	181	float scale = 1.0;
	182	if(std::abs(scaling.x - scaling.y) <= epsilon && std::abs(scaling.x - scaling.z) <= epsilon && std::abs(scaling.y - scaling.z) <= epsilon) {
	183	scale = (float) ((((double) scaling.x) + ((double) scaling.y) + ((double) scaling.z)) / 3.0);
	184	} else {
	185	add_root_node = true;
	186	}
	187
	188	std::string up_axis = "Y_UP";
	189	if(rotation.Equal(x_rot, epsilon)) {
	190	up_axis = "X_UP";
	191	} else if(rotation.Equal(y_rot, epsilon)) {
	192	up_axis = "Y_UP";
	193	} else if(rotation.Equal(z_rot, epsilon)) {
	194	up_axis = "Z_UP";
	195	} else {
	196	add_root_node = true;
	197	}
	198
	199	if(! position.Equal(aiVector3D(0, 0, 0))) {
	200	add_root_node = true;
	201	}
	202
	203	if(mScene->mRootNode->mNumChildren == 0) {
	204	add_root_node = true;
	205	}
	206
	207	if(add_root_node) {
	208	aiScene* scene;
	209	SceneCombiner::CopyScene(&scene, mScene);
	210
	211	aiNode* root = new aiNode("Scene");
	212
	213	root->mNumChildren = 1;
	214	root->mChildren = new aiNode*[root->mNumChildren];
	215
	216	root->mChildren[0] = scene->mRootNode;
	217	scene->mRootNode->mParent = root;
	218	scene->mRootNode = root;
	219
	220	mScene = scene;
	221	mSceneOwned = true;
	222
	223	up_axis = "Y_UP";
	224	scale = 1.0;
	225	}
	226
116	227	mOutput << startstr << "<asset>" << endstr;
117	228	PushTag();
118	229	mOutput << startstr << "<contributor>" << endstr;
119	230	PushTag();
120		mOutput << startstr << "<author>Someone</author>" << endstr;
	231	mOutput << startstr << "<author>Assimp</author>" << endstr;
121	232	mOutput << startstr << "<authoring_tool>Assimp Collada Exporter</authoring_tool>" << endstr;
122	233	PopTag();
123	234	mOutput << startstr << "</contributor>" << endstr;
124		mOutput << startstr << "<created>2000-01-01T23:59:59</created>" << endstr;
125		mOutput << startstr << "<modified>2000-01-01T23:59:59</modified>" << endstr;
126		mOutput << startstr << "<unit name=\"centimeter\" meter=\"0.01\" />" << endstr;
127		mOutput << startstr << "<up_axis>Y_UP</up_axis>" << endstr;
	235	mOutput << startstr << "<created>" << date_str << "</created>" << endstr;
	236	mOutput << startstr << "<modified>" << date_str << "</modified>" << endstr;
	237	mOutput << startstr << "<unit name=\"meter\" meter=\"" << scale << "\" />" << endstr;
	238	mOutput << startstr << "<up_axis>" << up_axis << "</up_axis>" << endstr;
128	239	PopTag();
129	240	mOutput << startstr << "</asset>" << endstr;
	241	}
	242
	243	// ------------------------------------------------------------------------------------------------
	244	// Write the embedded textures
	245	void ColladaExporter::WriteTextures() {
	246	static const unsigned int buffer_size = 1024;
	247	char str[buffer_size];
	248
	249	if(mScene->HasTextures()) {
	250	for(unsigned int i = 0; i < mScene->mNumTextures; i++) {
	251	// It would be great to be able to create a directory in portable standard C++, but it's not the case,
	252	// so we just write the textures in the current directory.
	253
	254	aiTexture* texture = mScene->mTextures[i];
	255
	256	ASSIMP_itoa10(str, buffer_size, i + 1);
	257
	258	std::string name = mFile + "_texture_" + (i < 1000 ? "0" : "") + (i < 100 ? "0" : "") + (i < 10 ? "0" : "") + str + "." + ((const char*) texture->achFormatHint);
	259
	260	boost::scoped_ptr<IOStream> outfile(mIOSystem->Open(mPath + name, "wb"));
	261	if(outfile == NULL) {
	262	throw DeadlyExportError("could not open output texture file: " + mPath + name);
	263	}
	264
	265	if(texture->mHeight == 0) {
	266	outfile->Write((void*) texture->pcData, texture->mWidth, 1);
	267	} else {
	268	Bitmap::Save(texture, outfile.get());
	269	}
	270
	271	outfile->Flush();
	272
	273	textures.insert(std::make_pair(i, name));
	274	}
	275	}
130	276	}
131	277
132	278	// ------------------------------------------------------------------------------------------------

138	284	aiString texfile;
139	285	unsigned int uvChannel = 0;
140	286	pSrcMat->GetTexture( pTexture, 0, &texfile, NULL, &uvChannel);
141		poSurface.texture = texfile.C_Str();
	287
	288	std::string index_str(texfile.C_Str());
	289
	290	if(index_str.size() != 0 && index_str[0] == '*')
	291	{
	292	unsigned int index;
	293
	294	index_str = index_str.substr(1, std::string::npos);
	295
	296	try {
	297	index = (unsigned int) strtoul10_64(index_str.c_str());
	298	} catch(std::exception& error) {
	299	throw DeadlyExportError(error.what());
	300	}
	301
	302	std::map<unsigned int, std::string>::const_iterator name = textures.find(index);
	303
	304	if(name != textures.end()) {
	305	poSurface.texture = name->second;
	306	} else {
	307	throw DeadlyExportError("could not find embedded texture at index " + index_str);
	308	}
	309	} else
	310	{
	311	poSurface.texture = texfile.C_Str();
	312	}
	313
142	314	poSurface.channel = uvChannel;
	315	poSurface.exist = true;
143	316	} else
144	317	{
145	318	if( pKey )
146		pSrcMat->Get( pKey, pType, pIndex, poSurface.color);
	319	poSurface.exist = pSrcMat->Get( pKey, pType, pIndex, poSurface.color) == aiReturn_SUCCESS;
147	320	}
148	321	}
149	322

173	346	// Writes a color-or-texture entry into an effect definition
174	347	void ColladaExporter::WriteTextureColorEntry( const Surface& pSurface, const std::string& pTypeName, const std::string& pImageName)
175	348	{
176		mOutput << startstr << "<" << pTypeName << ">" << endstr;
177		PushTag();
178		if( pSurface.texture.empty() )
179		{
180		mOutput << startstr << "<color sid=\"" << pTypeName << "\">" << pSurface.color.r << " " << pSurface.color.g << " " << pSurface.color.b << " " << pSurface.color.a << "</color>" << endstr;
181		} else
182		{
183		mOutput << startstr << "<texture texture=\"" << pImageName << "\" texcoord=\"CHANNEL" << pSurface.channel << "\" />" << endstr;
	349	if(pSurface.exist) {
	350	mOutput << startstr << "<" << pTypeName << ">" << endstr;
	351	PushTag();
	352	if( pSurface.texture.empty() )
	353	{
	354	mOutput << startstr << "<color sid=\"" << pTypeName << "\">" << pSurface.color.r << " " << pSurface.color.g << " " << pSurface.color.b << " " << pSurface.color.a << "</color>" << endstr;
	355	} else
	356	{
	357	mOutput << startstr << "<texture texture=\"" << pImageName << "\" texcoord=\"CHANNEL" << pSurface.channel << "\" />" << endstr;
	358	}
	359	PopTag();
	360	mOutput << startstr << "</" << pTypeName << ">" << endstr;
184	361	}
185		PopTag();
186		mOutput << startstr << "</" << pTypeName << ">" << endstr;
187	362	}
188	363
189	364	// ------------------------------------------------------------------------------------------------

216	391	}
217	392
218	393	// ------------------------------------------------------------------------------------------------
	394	// Writes a scalar property
	395	void ColladaExporter::WriteFloatEntry( const Property& pProperty, const std::string& pTypeName)
	396	{
	397	if(pProperty.exist) {
	398	mOutput << startstr << "<" << pTypeName << ">" << endstr;
	399	PushTag();
	400	mOutput << startstr << "<float sid=\"" << pTypeName << "\">" << pProperty.value << "</float>" << endstr;
	401	PopTag();
	402	mOutput << startstr << "</" << pTypeName << ">" << endstr;
	403	}
	404	}
	405
	406	// ------------------------------------------------------------------------------------------------
219	407	// Writes the material setup
220	408	void ColladaExporter::WriteMaterials()
221	409	{
222	410	materials.resize( mScene->mNumMaterials);
	411
	412	std::set<std::string> material_names;
223	413
224	414	/// collect all materials from the scene
225	415	size_t numTextures = 0;

229	419
230	420	aiString name;
231	421	if( mat->Get( AI_MATKEY_NAME, name) != aiReturn_SUCCESS )
232		name = "mat";
	422	name = "mat";
233	423	materials[a].name = std::string( "m") + boost::lexical_cast<std::string> (a) + name.C_Str();
234		for( std::string::iterator it = materials[a].name.begin(); it != materials[a].name.end(); ++it )
235		if( !isalnum( *it) )
	424	for( std::string::iterator it = materials[a].name.begin(); it != materials[a].name.end(); ++it ) {
	425	// isalnum on MSVC asserts for code points in [0,255]. Thus prevent unwanted promotion
	426	// of char to signed int and take the unsigned char value.
	427	if( !isalnum( static_cast<uint8_t>(*it) ) ) {
236	428	*it = '_';
	429	}
	430	}
	431
	432	aiShadingMode shading;
	433	materials[a].shading_model = "phong";
	434	if(mat->Get( AI_MATKEY_SHADING_MODEL, shading) == aiReturn_SUCCESS) {
	435	if(shading == aiShadingMode_Phong) {
	436	materials[a].shading_model = "phong";
	437	} else if(shading == aiShadingMode_Blinn) {
	438	materials[a].shading_model = "blinn";
	439	} else if(shading == aiShadingMode_NoShading) {
	440	materials[a].shading_model = "constant";
	441	} else if(shading == aiShadingMode_Gouraud) {
	442	materials[a].shading_model = "lambert";
	443	}
	444	}
237	445
238	446	ReadMaterialSurface( materials[a].ambient, mat, aiTextureType_AMBIENT, AI_MATKEY_COLOR_AMBIENT);
239	447	if( !materials[a].ambient.texture.empty() ) numTextures++;

245	453	if( !materials[a].emissive.texture.empty() ) numTextures++;
246	454	ReadMaterialSurface( materials[a].reflective, mat, aiTextureType_REFLECTION, AI_MATKEY_COLOR_REFLECTIVE);
247	455	if( !materials[a].reflective.texture.empty() ) numTextures++;
	456	ReadMaterialSurface( materials[a].transparent, mat, aiTextureType_OPACITY, AI_MATKEY_COLOR_TRANSPARENT);
	457	if( !materials[a].transparent.texture.empty() ) numTextures++;
248	458	ReadMaterialSurface( materials[a].normal, mat, aiTextureType_NORMALS, NULL, 0, 0);
249	459	if( !materials[a].normal.texture.empty() ) numTextures++;
250	460
251		mat->Get( AI_MATKEY_SHININESS, materials[a].shininess);
	461	materials[a].shininess.exist = mat->Get( AI_MATKEY_SHININESS, materials[a].shininess.value) == aiReturn_SUCCESS;
	462	materials[a].transparency.exist = mat->Get( AI_MATKEY_OPACITY, materials[a].transparency.value) == aiReturn_SUCCESS;
	463	materials[a].transparency.value = 1 - materials[a].transparency.value;
	464	materials[a].index_refraction.exist = mat->Get( AI_MATKEY_REFRACTI, materials[a].index_refraction.value) == aiReturn_SUCCESS;
252	465	}
253	466
254	467	// output textures if present

262	475	WriteImageEntry( mat.ambient, mat.name + "-ambient-image");
263	476	WriteImageEntry( mat.diffuse, mat.name + "-diffuse-image");
264	477	WriteImageEntry( mat.specular, mat.name + "-specular-image");
265		WriteImageEntry( mat.emissive, mat.name + "-emissive-image");
	478	WriteImageEntry( mat.emissive, mat.name + "-emission-image");
266	479	WriteImageEntry( mat.reflective, mat.name + "-reflective-image");
	480	WriteImageEntry( mat.transparent, mat.name + "-transparent-image");
267	481	WriteImageEntry( mat.normal, mat.name + "-normal-image");
268	482	}
269	483	PopTag();

285	499	PushTag();
286	500
287	501	// write sampler- and surface params for the texture entries
288		WriteTextureParamEntry( mat.emissive, "emissive", mat.name);
	502	WriteTextureParamEntry( mat.emissive, "emission", mat.name);
289	503	WriteTextureParamEntry( mat.ambient, "ambient", mat.name);
290	504	WriteTextureParamEntry( mat.diffuse, "diffuse", mat.name);
291	505	WriteTextureParamEntry( mat.specular, "specular", mat.name);
292	506	WriteTextureParamEntry( mat.reflective, "reflective", mat.name);
	507	WriteTextureParamEntry( mat.transparent, "transparent", mat.name);
	508	WriteTextureParamEntry( mat.normal, "normal", mat.name);
293	509
294	510	mOutput << startstr << "<technique sid=\"standard\">" << endstr;
295	511	PushTag();
296		mOutput << startstr << "<phong>" << endstr;
	512	mOutput << startstr << "<" << mat.shading_model << ">" << endstr;
297	513	PushTag();
298	514
299		WriteTextureColorEntry( mat.emissive, "emission", mat.name + "-emissive-sampler");
	515	WriteTextureColorEntry( mat.emissive, "emission", mat.name + "-emission-sampler");
300	516	WriteTextureColorEntry( mat.ambient, "ambient", mat.name + "-ambient-sampler");
301	517	WriteTextureColorEntry( mat.diffuse, "diffuse", mat.name + "-diffuse-sampler");
302	518	WriteTextureColorEntry( mat.specular, "specular", mat.name + "-specular-sampler");
303
304		mOutput << startstr << "<shininess>" << endstr;
305		PushTag();
306		mOutput << startstr << "<float sid=\"shininess\">" << mat.shininess << "</float>" << endstr;
	519	WriteFloatEntry(mat.shininess, "shininess");
	520	WriteTextureColorEntry( mat.reflective, "reflective", mat.name + "-reflective-sampler");
	521	WriteTextureColorEntry( mat.transparent, "transparent", mat.name + "-transparent-sampler");
	522	WriteFloatEntry(mat.transparency, "transparency");
	523	WriteFloatEntry(mat.index_refraction, "index_of_refraction");
	524
	525	if(! mat.normal.texture.empty()) {
	526	WriteTextureColorEntry( mat.normal, "bump", mat.name + "-normal-sampler");
	527	}
	528
307	529	PopTag();
308		mOutput << startstr << "</shininess>" << endstr;
309
310		WriteTextureColorEntry( mat.reflective, "reflective", mat.name + "-reflective-sampler");
311
312		// deactivated because the Collada spec PHONG model does not allow other textures.
313		// if( !mat.normal.texture.empty() )
314		// WriteTextureColorEntry( mat.normal, "bump", mat.name + "-normal-sampler");
315
316
317		PopTag();
318		mOutput << startstr << "</phong>" << endstr;
	530	mOutput << startstr << "</" << mat.shading_model << ">" << endstr;
319	531	PopTag();
320	532	mOutput << startstr << "</technique>" << endstr;
321	533	PopTag();

494	706	mOutput << "</float_array>" << endstr;
495	707	PopTag();
496	708
497		// the usual Collada bullshit. Let's bloat it even more!
	709	// the usual Collada fun. Let's bloat it even more!
498	710	mOutput << startstr << "<technique_common>" << endstr;
499	711	PushTag();
500	712	mOutput << startstr << "<accessor count=\"" << pElementCount << "\" offset=\"0\" source=\"#" << arrayId << "\" stride=\"" << floatsPerElement << "\">" << endstr;

538	750	// Writes the scene library
539	751	void ColladaExporter::WriteSceneLibrary()
540	752	{
	753	std::string scene_name = mScene->mRootNode->mName.C_Str();
	754
541	755	mOutput << startstr << "<library_visual_scenes>" << endstr;
542	756	PushTag();
543		mOutput << startstr << "<visual_scene id=\"myScene\" name=\"myScene\">" << endstr;
	757	mOutput << startstr << "<visual_scene id=\"" + scene_name + "\" name=\"" + scene_name + "\">" << endstr;
544	758	PushTag();
545	759
546	760	// start recursive write at the root node
547		WriteNode( mScene->mRootNode);
	761	for( size_t a = 0; a < mScene->mRootNode->mNumChildren; ++a )
	762	WriteNode( mScene->mRootNode->mChildren[a]);
548	763
549	764	PopTag();
550	765	mOutput << startstr << "</visual_scene>" << endstr;

573	788	for( size_t a = 0; a < pNode->mNumMeshes; ++a )
574	789	{
575	790	const aiMesh* mesh = mScene->mMeshes[pNode->mMeshes[a]];
576		// do not instanciate mesh if empty. I wonder how this could happen
577		if( mesh->mNumFaces == 0 \|\| mesh->mNumVertices == 0 )
578		continue;
	791	// do not instanciate mesh if empty. I wonder how this could happen
	792	if( mesh->mNumFaces == 0 \|\| mesh->mNumVertices == 0 )
	793	continue;
579	794
580	795	mOutput << startstr << "<instance_geometry url=\"#" << GetMeshId( pNode->mMeshes[a]) << "\">" << endstr;
581	796	PushTag();
582		mOutput << startstr << "<bind_material>" << endstr;
583		PushTag();
584		mOutput << startstr << "<technique_common>" << endstr;
585		PushTag();
586		mOutput << startstr << "<instance_material symbol=\"theresonlyone\" target=\"#" << materials[mesh->mMaterialIndex].name << "\" />" << endstr;
	797	mOutput << startstr << "<bind_material>" << endstr;
	798	PushTag();
	799	mOutput << startstr << "<technique_common>" << endstr;
	800	PushTag();
	801	mOutput << startstr << "<instance_material symbol=\"theresonlyone\" target=\"#" << materials[mesh->mMaterialIndex].name << "\" />" << endstr;
587	802	PopTag();
588		mOutput << startstr << "</technique_common>" << endstr;
589		PopTag();
590		mOutput << startstr << "</bind_material>" << endstr;
591		PopTag();
	803	mOutput << startstr << "</technique_common>" << endstr;
	804	PopTag();
	805	mOutput << startstr << "</bind_material>" << endstr;
	806	PopTag();
592	807	mOutput << startstr << "</instance_geometry>" << endstr;
593	808	}
594	809

+36

-7

code/ColladaExporter.h less more

58	58	{
59	59	public:
60	60	/// Constructor for a specific scene to export
61		ColladaExporter( const aiScene* pScene);
	61	ColladaExporter( const aiScene* pScene, IOSystem* pIOSystem, const std::string& path, const std::string& file);
	62
	63	/// Destructor
	64	virtual ~ColladaExporter();
62	65
63	66	protected:
64	67	/// Starts writing the contents

67	70	/// Writes the asset header
68	71	void WriteHeader();
69	72
70		/// Writes the material setup
71		void WriteMaterials();
	73	/// Writes the embedded textures
	74	void WriteTextures();
	75
	76	/// Writes the material setup
	77	void WriteMaterials();
72	78
73	79	/// Writes the geometry library
74	80	void WriteGeometryLibrary();

100	106	std::stringstream mOutput;
101	107
102	108	protected:
	109	/// The IOSystem for output
	110	IOSystem* mIOSystem;
	111
	112	/// Path of the directory where the scene will be exported
	113	const std::string mPath;
	114
	115	/// Name of the file (without extension) where the scene will be exported
	116	const std::string mFile;
	117
103	118	/// The scene to be written
104	119	const aiScene* mScene;
	120	bool mSceneOwned;
105	121
106	122	/// current line start string, contains the current indentation for simple stream insertion
107	123	std::string startstr;

111	127	// pair of color and texture - texture precedences color
112	128	struct Surface
113	129	{
	130	bool exist;
114	131	aiColor4D color;
115	132	std::string texture;
116	133	size_t channel;
117		Surface() { channel = 0; }
	134	Surface() { exist = false; channel = 0; }
	135	};
	136
	137	struct Property
	138	{
	139	bool exist;
	140	float value;
	141	Property() { exist = false; }
118	142	};
119	143
120	144	// summarize a material in an convinient way.
121	145	struct Material
122	146	{
123	147	std::string name;
124		Surface ambient, diffuse, specular, emissive, reflective, normal;
125		float shininess; /// specular exponent
	148	std::string shading_model;
	149	Surface ambient, diffuse, specular, emissive, reflective, transparent, normal;
	150	Property shininess, transparency, index_refraction;
126	151
127		Material() { shininess = 16.0f; }
	152	Material() {}
128	153	};
129	154
130	155	std::vector<Material> materials;
	156
	157	std::map<unsigned int, std::string> textures;
131	158
132	159	protected:
133	160	/// Dammit C++ - y u no compile two-pass? No I have to add all methods below the struct definitions

139	166	void WriteTextureParamEntry( const Surface& pSurface, const std::string& pTypeName, const std::string& pMatName);
140	167	/// Writes a color-or-texture entry into an effect definition
141	168	void WriteTextureColorEntry( const Surface& pSurface, const std::string& pTypeName, const std::string& pImageName);
	169	/// Writes a scalar property
	170	void WriteFloatEntry( const Property& pProperty, const std::string& pTypeName);
142	171	};
143	172
144	173	}

-2

code/ColladaHelper.h less more

118	118	};
119	119
120	120	#define aiLightSource_AMBIENT 0xdeaddead
	121	#define ASSIMP_COLLADA_LIGHT_ANGLE_NOT_SET 1e9f
121	122
122	123	/** A collada light source. */
123	124	struct Light

128	129	, mAttQuadratic (0.f)
129	130	, mFalloffAngle (180.f)
130	131	, mFalloffExponent (0.f)
131		, mPenumbraAngle (10e10f)
132		, mOuterAngle (10e10f)
	132	, mPenumbraAngle (ASSIMP_COLLADA_LIGHT_ANGLE_NOT_SET)
	133	, mOuterAngle (ASSIMP_COLLADA_LIGHT_ANGLE_NOT_SET)
133	134	, mIntensity (1.f)
134	135	{}
135	136

319	320	for (unsigned int i = 0; i < AI_MAX_NUMBER_OF_TEXTURECOORDS;++i)
320	321	mNumUVComponents[i] = 2;
321	322	}
	323
	324	std::string mName;
322	325
323	326	// just to check if there's some sophisticated addressing involved...
324	327	// which we don't support, and therefore should warn about.

+58

-29

code/ColladaLoader.cpp less more

41	41	/** @file Implementation of the Collada loader */
42	42
43	43	#include "AssimpPCH.h"
44		#ifndef ASSIMP_BUILD_NO_DAE_IMPORTER
	44	#ifndef ASSIMP_BUILD_NO_COLLADA_IMPORTER
45	45
46	46	#include "../include/assimp/anim.h"
47	47	#include "ColladaLoader.h"

72	72	// ------------------------------------------------------------------------------------------------
73	73	// Constructor to be privately used by Importer
74	74	ColladaLoader::ColladaLoader()
	75	: noSkeletonMesh(), ignoreUpDirection(false)
75	76	{}
76	77
77	78	// ------------------------------------------------------------------------------------------------

103	104	}
104	105
105	106	// ------------------------------------------------------------------------------------------------
	107	void ColladaLoader::SetupProperties(const Importer* pImp)
	108	{
	109	noSkeletonMesh = pImp->GetPropertyInteger(AI_CONFIG_IMPORT_NO_SKELETON_MESHES,0) != 0;
	110	ignoreUpDirection = pImp->GetPropertyInteger(AI_CONFIG_IMPORT_COLLADA_IGNORE_UP_DIRECTION,0) != 0;
	111	}
	112
	113
	114	// ------------------------------------------------------------------------------------------------
106	115	// Get file extension list
107	116	const aiImporterDesc* ColladaLoader::GetInfo () const
108	117	{

123	132	mLights.clear();
124	133	mCameras.clear();
125	134	mTextures.clear();
	135	mAnims.clear();
126	136
127	137	// parse the input file
128	138	ColladaParser parser( pIOHandler, pFile);

146	156	// ... then fill the materials with the now adjusted settings
147	157	FillMaterials(parser, pScene);
148	158
149		// Convert to Y_UP, if different orientation
150		if( parser.mUpDirection == ColladaParser::UP_X)
151		pScene->mRootNode->mTransformation *= aiMatrix4x4(
152		0, -1, 0, 0,
153		1, 0, 0, 0,
154		0, 0, 1, 0,
155		0, 0, 0, 1);
156		else if( parser.mUpDirection == ColladaParser::UP_Z)
157		pScene->mRootNode->mTransformation *= aiMatrix4x4(
158		1, 0, 0, 0,
159		0, 0, 1, 0,
160		0, -1, 0, 0,
161		0, 0, 0, 1);
162
	159	// Apply unitsize scale calculation
	160	pScene->mRootNode->mTransformation *= aiMatrix4x4(parser.mUnitSize, 0, 0, 0,
	161	0, parser.mUnitSize, 0, 0,
	162	0, 0, parser.mUnitSize, 0,
	163	0, 0, 0, 1);
	164	if( !ignoreUpDirection ) {
	165	// Convert to Y_UP, if different orientation
	166	if( parser.mUpDirection == ColladaParser::UP_X)
	167	pScene->mRootNode->mTransformation *= aiMatrix4x4(
	168	0, -1, 0, 0,
	169	1, 0, 0, 0,
	170	0, 0, 1, 0,
	171	0, 0, 0, 1);
	172	else if( parser.mUpDirection == ColladaParser::UP_Z)
	173	pScene->mRootNode->mTransformation *= aiMatrix4x4(
	174	1, 0, 0, 0,
	175	0, 0, 1, 0,
	176	0, -1, 0, 0,
	177	0, 0, 0, 1);
	178	}
163	179	// store all meshes
164	180	StoreSceneMeshes( pScene);
165	181

179	195	// If no meshes have been loaded, it's probably just an animated skeleton.
180	196	if (!pScene->mNumMeshes) {
181	197
182		SkeletonMeshBuilder hero(pScene);
	198	if (!noSkeletonMesh) {
	199	SkeletonMeshBuilder hero(pScene);
	200	}
183	201	pScene->mFlags \|= AI_SCENE_FLAGS_INCOMPLETE;
184	202	}
185	203	}

314	332
315	333	out->mAngleInnerCone = AI_DEG_TO_RAD( srcLight->mFalloffAngle );
316	334
317		// ... some extension magic. FUCKING COLLADA.
318		if (srcLight->mOuterAngle == 10e10f)
	335	// ... some extension magic.
	336	if (srcLight->mOuterAngle >= ASSIMP_COLLADA_LIGHT_ANGLE_NOT_SET*(1-1e-6f))
319	337	{
320		// ... some deprecation magic. FUCKING FCOLLADA.
321		if (srcLight->mPenumbraAngle == 10e10f)
	338	// ... some deprecation magic.
	339	if (srcLight->mPenumbraAngle >= ASSIMP_COLLADA_LIGHT_ANGLE_NOT_SET*(1-1e-6f))
322	340	{
323	341	// Need to rely on falloff_exponent. I don't know how to interpret it, so I need to guess ....
324	342	// epsilon chosen to be 0.1

371	389	out->mClipPlaneNear = srcCamera->mZNear;
372	390
373	391	// ... but for the rest some values are optional
374		// and we need to compute the others in any combination. FUCKING COLLADA.
	392	// and we need to compute the others in any combination.
375	393	if (srcCamera->mAspect != 10e10f)
376	394	out->mAspect = srcCamera->mAspect;
377	395

455	473	}
456	474	else
457	475	{
458		DefaultLogger::get()->warn( boost::str( boost::format( "Collada: No material specified for subgroup \"%s\" in geometry \"%s\".") % submesh.mMaterial % mid.mMeshOrController));
	476	DefaultLogger::get()->warn( boost::str( boost::format( "Collada: No material specified for subgroup <%s> in geometry <%s>.") % submesh.mMaterial % mid.mMeshOrController));
459	477	if( !mid.mMaterials.empty() )
460	478	meshMaterial = mid.mMaterials.begin()->second.mMatName;
461	479	}

503	521
504	522	// assign the material index
505	523	dstMesh->mMaterialIndex = matIdx;
506		}
	524	if(dstMesh->mName.length == 0)
	525	{
	526	dstMesh->mName = mid.mMeshOrController;
	527	}
	528	}
507	529	}
508	530	}
509	531

522	544	const Collada::Controller* pSrcController, size_t pStartVertex, size_t pStartFace)
523	545	{
524	546	aiMesh* dstMesh = new aiMesh;
	547
	548	dstMesh->mName = pSrcMesh->mName;
525	549
526	550	// count the vertices addressed by its faces
527	551	const size_t numVertices = std::accumulate( pSrcMesh->mFaceSize.begin() + pStartFace,

533	557	std::copy( pSrcMesh->mPositions.begin() + pStartVertex, pSrcMesh->mPositions.begin() +
534	558	pStartVertex + numVertices, dstMesh->mVertices);
535	559
536		// normals, if given. HACK: (thom) Due to the fucking Collada spec we never
	560	// normals, if given. HACK: (thom) Due to the glorious Collada spec we never
537	561	// know if we have the same number of normals as there are positions. So we
538	562	// also ignore any vertex attribute if it has a different count
539	563	if( pSrcMesh->mNormals.size() >= pStartVertex + numVertices)

624	648	throw DeadlyImportError( "Data type mismatch while resolving mesh joints");
625	649	// sanity check: we rely on the vertex weights always coming as pairs of BoneIndex-WeightIndex
626	650	if( pSrcController->mWeightInputJoints.mOffset != 0 \|\| pSrcController->mWeightInputWeights.mOffset != 1)
627		throw DeadlyImportError( "Unsupported vertex_weight adresssing scheme. Fucking collada spec.");
	651	throw DeadlyImportError( "Unsupported vertex_weight addressing scheme. ");
628	652
629	653	// create containers to collect the weights for each bone
630	654	size_t numBones = jointNames.mStrings.size();

880	904	pScene->mAnimations = new aiAnimation*[mAnims.size()];
881	905	std::copy( mAnims.begin(), mAnims.end(), pScene->mAnimations);
882	906	}
	907
	908	mAnims.clear();
883	909	}
884	910
885	911	// ------------------------------------------------------------------------------------------------

955	981	else if( subElement == "Z")
956	982	entry.mSubElement = 2;
957	983	else
958		DefaultLogger::get()->warn( boost::str( boost::format( "Unknown anim subelement \"%s\". Ignoring") % subElement));
	984	DefaultLogger::get()->warn( boost::str( boost::format( "Unknown anim subelement <%s>. Ignoring") % subElement));
959	985	} else
960	986	{
961	987	// no subelement following, transformId is remaining string

1433	1459	ss.data[ss.length] = 0;
1434	1460	}
1435	1461
1436		// find and convert all %xyz special chars
	1462	// find and convert all %xy special chars
1437	1463	char* out = ss.data;
1438	1464	for( const char* it = ss.data; it != ss.data + ss.length; /**/ )
1439	1465	{
1440		if( *it == '%' )
	1466	if( *it == '%' && (it + 3) < ss.data + ss.length )
1441	1467	{
1442		size_t nbr = strtoul16( ++it, &it);
	1468	// separate the number to avoid dragging in chars from behind into the parsing
	1469	char mychar[3] = { it[1], it[2], 0 };
	1470	size_t nbr = strtoul16( mychar);
	1471	it += 3;
1443	1472	*out++ = (char)(nbr & 0xFF);
1444	1473	} else
1445	1474	{

-0

code/ColladaLoader.h less more

93	93	*/
94	94	const aiImporterDesc* GetInfo () const;
95	95
	96	void SetupProperties(const Importer* pImp);
	97
96	98	/** Imports the given file into the given scene structure.
97	99	* See BaseImporter::InternReadFile() for details
98	100	*/

229	231
230	232	/** Accumulated animations for the target scene */
231	233	std::vector<aiAnimation*> mAnims;
	234
	235	bool noSkeletonMesh;
	236	bool ignoreUpDirection;
232	237	};
233	238
234	239	} // end of namespace Assimp

+114

-104

code/ColladaParser.cpp less more

43	43	*/
44	44
45	45	#include "AssimpPCH.h"
46		#ifndef ASSIMP_BUILD_NO_DAE_IMPORTER
	46	#ifndef ASSIMP_BUILD_NO_COLLADA_IMPORTER
47	47
48	48	#include "ColladaParser.h"
49	49	#include "fast_atof.h"

139	139	ReadStructure();
140	140	} else
141	141	{
142		DefaultLogger::get()->debug( boost::str( boost::format( "Ignoring global element \"%s\".") % mReader->getNodeName()));
	142	DefaultLogger::get()->debug( boost::str( boost::format( "Ignoring global element <%s>.") % mReader->getNodeName()));
143	143	SkipElement();
144	144	}
145	145	} else

239	239	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
240	240	{
241	241	if( strcmp( mReader->getNodeName(), "asset") != 0)
242		ThrowException( "Expected end of \"asset\" element.");
	242	ThrowException( "Expected end of <asset> element.");
243	243
244	244	break;
245	245	}

270	270	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
271	271	{
272	272	if( strcmp( mReader->getNodeName(), "library_animations") != 0)
273		ThrowException( "Expected end of \"library_animations\" element.");
	273	ThrowException( "Expected end of <library_animations> element.");
274	274
275	275	break;
276	276	}

361	361	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
362	362	{
363	363	if( strcmp( mReader->getNodeName(), "animation") != 0)
364		ThrowException( "Expected end of \"animation\" element.");
	364	ThrowException( "Expected end of <animation> element.");
365	365
366	366	break;
367	367	}

424	424	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
425	425	{
426	426	if( strcmp( mReader->getNodeName(), "sampler") != 0)
427		ThrowException( "Expected end of \"sampler\" element.");
	427	ThrowException( "Expected end of <sampler> element.");
428	428
429	429	break;
430	430	}

462	462	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
463	463	{
464	464	if( strcmp( mReader->getNodeName(), "library_controllers") != 0)
465		ThrowException( "Expected end of \"library_controllers\" element.");
	465	ThrowException( "Expected end of <library_controllers> element.");
466	466
467	467	break;
468	468	}

486	486	else if( IsElement( "skin"))
487	487	{
488	488	// read the mesh it refers to. According to the spec this could also be another
489		// controller, but I refuse to implement every bullshit idea they've come up with
	489	// controller, but I refuse to implement every single idea they've come up with
490	490	int sourceIndex = GetAttribute( "source");
491	491	pController.mMeshId = mReader->getAttributeValue( sourceIndex) + 1;
492	492	}

530	530	if( strcmp( mReader->getNodeName(), "controller") == 0)
531	531	break;
532	532	else if( strcmp( mReader->getNodeName(), "skin") != 0)
533		ThrowException( "Expected end of \"controller\" element.");
	533	ThrowException( "Expected end of <controller> element.");
534	534	}
535	535	}
536	536	}

553	553
554	554	// local URLS always start with a '#'. We don't support global URLs
555	555	if( attrSource[0] != '#')
556		ThrowException( boost::str( boost::format( "Unsupported URL format in \"%s\"") % attrSource));
	556	ThrowException( boost::str( boost::format( "Unsupported URL format in \"%s\" in source attribute of <joints> data <input> element") % attrSource));
557	557	attrSource++;
558	558
559	559	// parse source URL to corresponding source

562	562	else if( strcmp( attrSemantic, "INV_BIND_MATRIX") == 0)
563	563	pController.mJointOffsetMatrixSource = attrSource;
564	564	else
565		ThrowException( boost::str( boost::format( "Unknown semantic \"%s\" in joint data") % attrSemantic));
	565	ThrowException( boost::str( boost::format( "Unknown semantic \"%s\" in <joints> data <input> element") % attrSemantic));
566	566
567	567	// skip inner data, if present
568	568	if( !mReader->isEmptyElement())

577	577	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
578	578	{
579	579	if( strcmp( mReader->getNodeName(), "joints") != 0)
580		ThrowException( "Expected end of \"joints\" element.");
	580	ThrowException( "Expected end of <joints> element.");
581	581
582	582	break;
583	583	}

598	598	if( mReader->getNodeType() == irr::io::EXN_ELEMENT)
599	599	{
600	600	// Input channels for weight data. Two possible semantics: "JOINT" and "WEIGHT"
601		if( IsElement( "input"))
	601	if( IsElement( "input") && vertexCount > 0 )
602	602	{
603	603	InputChannel channel;
604	604

612	612
613	613	// local URLS always start with a '#'. We don't support global URLs
614	614	if( attrSource[0] != '#')
615		ThrowException( boost::str( boost::format( "Unsupported URL format in \"%s\"") % attrSource));
	615	ThrowException( boost::str( boost::format( "Unsupported URL format in \"%s\" in source attribute of <vertex_weights> data <input> element") % attrSource));
616	616	channel.mAccessor = attrSource + 1;
617	617
618	618	// parse source URL to corresponding source

621	621	else if( strcmp( attrSemantic, "WEIGHT") == 0)
622	622	pController.mWeightInputWeights = channel;
623	623	else
624		ThrowException( boost::str( boost::format( "Unknown semantic \"%s\" in vertex_weight data") % attrSemantic));
	624	ThrowException( boost::str( boost::format( "Unknown semantic \"%s\" in <vertex_weights> data <input> element") % attrSemantic));
625	625
626	626	// skip inner data, if present
627	627	if( !mReader->isEmptyElement())
628	628	SkipElement();
629	629	}
630		else if( IsElement( "vcount"))
	630	else if( IsElement( "vcount") && vertexCount > 0 )
631	631	{
632	632	// read weight count per vertex
633	633	const char* text = GetTextContent();

635	635	for( std::vector<size_t>::iterator it = pController.mWeightCounts.begin(); it != pController.mWeightCounts.end(); ++it)
636	636	{
637	637	if( *text == 0)
638		ThrowException( "Out of data while reading vcount");
	638	ThrowException( "Out of data while reading <vcount>");
639	639
640	640	*it = strtoul10( text, &text);
641	641	numWeights += *it;

647	647	// reserve weight count
648	648	pController.mWeights.resize( numWeights);
649	649	}
650		else if( IsElement( "v"))
	650	else if( IsElement( "v") && vertexCount > 0 )
651	651	{
652	652	// read JointIndex - WeightIndex pairs
653	653	const char* text = GetTextContent();

655	655	for( std::vector< std::pair<size_t, size_t> >::iterator it = pController.mWeights.begin(); it != pController.mWeights.end(); ++it)
656	656	{
657	657	if( *text == 0)
658		ThrowException( "Out of data while reading vertex_weights");
	658	ThrowException( "Out of data while reading <vertex_weights>");
659	659	it->first = strtoul10( text, &text);
660	660	SkipSpacesAndLineEnd( &text);
661	661	if( *text == 0)
662		ThrowException( "Out of data while reading vertex_weights");
	662	ThrowException( "Out of data while reading <vertex_weights>");
663	663	it->second = strtoul10( text, &text);
664	664	SkipSpacesAndLineEnd( &text);
665	665	}

675	675	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
676	676	{
677	677	if( strcmp( mReader->getNodeName(), "vertex_weights") != 0)
678		ThrowException( "Expected end of \"vertex_weights\" element.");
	678	ThrowException( "Expected end of <vertex_weights> element.");
679	679
680	680	break;
681	681	}

711	711	}
712	712	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END) {
713	713	if( strcmp( mReader->getNodeName(), "library_images") != 0)
714		ThrowException( "Expected end of \"library_images\" element.");
	714	ThrowException( "Expected end of <library_images> element.");
715	715
716	716	break;
717	717	}

837	837	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
838	838	{
839	839	if( strcmp( mReader->getNodeName(), "library_materials") != 0)
840		ThrowException( "Expected end of \"library_materials\" element.");
	840	ThrowException( "Expected end of <library_materials> element.");
841	841
842	842	break;
843	843	}

871	871	}
872	872	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END) {
873	873	if( strcmp( mReader->getNodeName(), "library_lights") != 0)
874		ThrowException( "Expected end of \"library_lights\" element.");
	874	ThrowException( "Expected end of <library_lights> element.");
875	875
876	876	break;
877	877	}

910	910	}
911	911	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END) {
912	912	if( strcmp( mReader->getNodeName(), "library_cameras") != 0)
913		ThrowException( "Expected end of \"library_cameras\" element.");
	913	ThrowException( "Expected end of <library_cameras> element.");
914	914
915	915	break;
916	916	}

946	946	}
947	947	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END) {
948	948	if( strcmp( mReader->getNodeName(), "material") != 0)
949		ThrowException( "Expected end of \"material\" element.");
	949	ThrowException( "Expected end of <material> element.");
950	950
951	951	break;
952	952	}

1096	1096	if( IsElement( "effect"))
1097	1097	{
1098	1098	// read ID. Do I have to repeat my ranting about "optional" attributes?
1099		// Alex: .... no, not necessary. Please shut up and leave more space for
1100		// me to complain about the fucking Collada spec with its fucking
1101		// 'optional' attributes ...
1102	1099	int attrID = GetAttribute( "id");
1103	1100	std::string id = mReader->getAttributeValue( attrID);
1104	1101

1114	1111	}
1115	1112	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END) {
1116	1113	if( strcmp( mReader->getNodeName(), "library_effects") != 0)
1117		ThrowException( "Expected end of \"library_effects\" element.");
	1114	ThrowException( "Expected end of <library_effects> element.");
1118	1115
1119	1116	break;
1120	1117	}

1138	1135	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
1139	1136	{
1140	1137	if( strcmp( mReader->getNodeName(), "effect") != 0)
1141		ThrowException( "Expected end of \"effect\" element.");
	1138	ThrowException( "Expected end of <effect> element.");
1142	1139
1143	1140	break;
1144	1141	}

1368	1365	int attrTex = GetAttribute( "texture");
1369	1366	pSampler.mName = mReader->getAttributeValue( attrTex);
1370	1367
1371		// get name of UV source channel
1372		attrTex = GetAttribute( "texcoord");
1373		pSampler.mUVChannel = mReader->getAttributeValue( attrTex);
	1368	// get name of UV source channel. Specification demands it to be there, but some exporters
	1369	// don't write it. It will be the default UV channel in case it's missing.
	1370	attrTex = TestAttribute( "texcoord");
	1371	if( attrTex >= 0 )
	1372	pSampler.mUVChannel = mReader->getAttributeValue( attrTex);
1374	1373	//SkipElement();
1375	1374	}
1376	1375	else if( IsElement( "technique"))

1492	1491	// create a mesh and store it in the library under its ID
1493	1492	Mesh* mesh = new Mesh;
1494	1493	mMeshLibrary[id] = mesh;
	1494
	1495	// read the mesh name if it exists
	1496	const int nameIndex = TestAttribute("name");
	1497	if(nameIndex != -1)
	1498	{
	1499	mesh->mName = mReader->getAttributeValue(nameIndex);
	1500	}
1495	1501
1496	1502	// read on from there
1497	1503	ReadGeometry( mesh);

1504	1510	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
1505	1511	{
1506	1512	if( strcmp( mReader->getNodeName(), "library_geometries") != 0)
1507		ThrowException( "Expected end of \"library_geometries\" element.");
	1513	ThrowException( "Expected end of <library_geometries> element.");
1508	1514
1509	1515	break;
1510	1516	}

1535	1541	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
1536	1542	{
1537	1543	if( strcmp( mReader->getNodeName(), "geometry") != 0)
1538		ThrowException( "Expected end of \"geometry\" element.");
	1544	ThrowException( "Expected end of <geometry> element.");
1539	1545
1540	1546	break;
1541	1547	}

1587	1593	} else
1588	1594	{
1589	1595	// everything else should be punished
1590		ThrowException( "Expected end of \"mesh\" element.");
	1596	ThrowException( "Expected end of <mesh> element.");
1591	1597	}
1592	1598	}
1593	1599	}

1610	1616	}
1611	1617	else if( IsElement( "technique_common"))
1612	1618	{
1613		// I don't fucking care for your profiles bullshit
	1619	// I don't care for your profiles
1614	1620	}
1615	1621	else if( IsElement( "accessor"))
1616	1622	{

1634	1640	} else
1635	1641	{
1636	1642	// everything else should be punished
1637		ThrowException( "Expected end of \"source\" element.");
	1643	ThrowException( "Expected end of <source> element.");
1638	1644	}
1639	1645	}
1640	1646	}

1712	1718	int attrSource = GetAttribute( "source");
1713	1719	const char* source = mReader->getAttributeValue( attrSource);
1714	1720	if( source[0] != '#')
1715		ThrowException( boost::str( boost::format( "Unknown reference format in url \"%s\".") % source));
	1721	ThrowException( boost::str( boost::format( "Unknown reference format in url \"%s\" in source attribute of <accessor> element.") % source));
1716	1722	int attrCount = GetAttribute( "count");
1717	1723	unsigned int count = (unsigned int) mReader->getAttributeValueAsInt( attrCount);
1718	1724	int attrOffset = TestAttribute( "offset");

1794	1800	SkipElement();
1795	1801	} else
1796	1802	{
1797		ThrowException( "Unexpected sub element in tag \"accessor\".");
	1803	ThrowException( boost::str( boost::format( "Unexpected sub element <%s> in tag <accessor>") % mReader->getNodeName()));
1798	1804	}
1799	1805	}
1800	1806	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
1801	1807	{
1802	1808	if( strcmp( mReader->getNodeName(), "accessor") != 0)
1803		ThrowException( "Expected end of \"accessor\" element.");
1804
	1809	ThrowException( "Expected end of <accessor> element.");
1805	1810	break;
1806	1811	}
1807	1812	}

1825	1830	ReadInputChannel( pMesh->mPerVertexData);
1826	1831	} else
1827	1832	{
1828		ThrowException( "Unexpected sub element in tag \"vertices\".");
	1833	ThrowException( boost::str( boost::format( "Unexpected sub element <%s> in tag <vertices>") % mReader->getNodeName()));
1829	1834	}
1830	1835	}
1831	1836	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
1832	1837	{
1833	1838	if( strcmp( mReader->getNodeName(), "vertices") != 0)
1834		ThrowException( "Expected end of \"vertices\" element.");
	1839	ThrowException( "Expected end of <vertices> element.");
1835	1840
1836	1841	break;
1837	1842	}

1898	1903	for( unsigned int a = 0; a < numPrimitives; a++)
1899	1904	{
1900	1905	if( *content == 0)
1901		ThrowException( "Expected more values while reading vcount contents.");
	1906	ThrowException( "Expected more values while reading <vcount> contents.");
1902	1907	// read a number
1903	1908	vcount.push_back( (size_t) strtoul10( content, &content));
1904	1909	// skip whitespace after it

1918	1923	}
1919	1924	} else
1920	1925	{
1921		ThrowException( "Unexpected sub element in tag \"vertices\".");
	1926	ThrowException( boost::str( boost::format( "Unexpected sub element <%s> in tag <%s>") % mReader->getNodeName() % elementName));
1922	1927	}
1923	1928	}
1924	1929	else if( mReader->getNodeType() == irr::io::EXN_ELEMENT_END)
1925	1930	{
1926	1931	if( mReader->getNodeName() != elementName)
1927		ThrowException( boost::str( boost::format( "Expected end of \"%s\" element.") % elementName));
	1932	ThrowException( boost::str( boost::format( "Expected end of <%s> element.") % elementName));
1928	1933
1929	1934	break;
1930	1935	}

1946	1951	int attrSource = GetAttribute( "source");
1947	1952	const char* source = mReader->getAttributeValue( attrSource);
1948	1953	if( source[0] != '#')
1949		ThrowException( boost::str( boost::format( "Unknown reference format in url \"%s\".") % source));
	1954	ThrowException( boost::str( boost::format( "Unknown reference format in url \"%s\" in source attribute of <input> element.") % source));
1950	1955	channel.mAccessor = source+1; // skipping the leading #, hopefully the remaining text is the accessor ID only
1951	1956
1952	1957	// read index offset, if per-index <input>

1960	1965	if(attrSet > -1){
1961	1966	attrSet = mReader->getAttributeValueAsInt( attrSet);
1962	1967	if(attrSet < 0)
1963		ThrowException( boost::str( boost::format( "Invalid index \"%i\" for set attribute") % (attrSet)));
	1968	ThrowException( boost::str( boost::format( "Invalid index \"%i\" in set attribute of <input> element") % (attrSet)));
1964	1969
1965	1970	channel.mIndex = attrSet;
1966	1971	}

2062	2067	{
2063	2068	// warn if the vertex channel does not refer to the <vertices> element in the same mesh
2064	2069	if( input.mAccessor != pMesh->mVertexID)
2065		ThrowException( "Unsupported vertex referencing scheme. I fucking hate Collada.");
	2070	ThrowException( "Unsupported vertex referencing scheme.");
2066	2071	continue;
2067	2072	}
2068	2073

2154	2159
2155	2160	// get a pointer to the start of the data object referred to by the accessor and the local index
2156	2161	const float* dataObject = &(acc.mData->mValues[0]) + acc.mOffset + pLocalIndex* acc.mStride;
2157
	2162
2158	2163	// assemble according to the accessors component sub-offset list. We don't care, yet,
2159	2164	// what kind of object exactly we're extracting here
2160	2165	float obj[4];

2171	2176	DefaultLogger::get()->error("Collada: just one vertex position stream supported");
2172	2177	break;
2173	2178	case IT_Normal:
2174		// pad to current vertex count if necessary
2175		if( pMesh->mNormals.size() < pMesh->mPositions.size()-1)
2176		pMesh->mNormals.insert( pMesh->mNormals.end(), pMesh->mPositions.size() - pMesh->mNormals.size() - 1, aiVector3D( 0, 1, 0));
2177
2178		// ignore all normal streams except 0 - there can be only one normal
2179		if( pInput.mIndex == 0)
	2179	// pad to current vertex count if necessary
	2180	if( pMesh->mNormals.size() < pMesh->mPositions.size()-1)
	2181	pMesh->mNormals.insert( pMesh->mNormals.end(), pMesh->mPositions.size() - pMesh->mNormals.size() - 1, aiVector3D( 0, 1, 0));
	2182
	2183	// ignore all normal streams except 0 - there can be only one normal
	2184	if( pInput.mIndex == 0)
2180	2185	pMesh->mNormals.push_back( aiVector3D( obj[0], obj[1], obj[2]));
2181	2186	else
2182	2187	DefaultLogger::get()->error("Collada: just one vertex normal stream supported");
2183	2188	break;
2184	2189	case IT_Tangent:
2185		// pad to current vertex count if necessary
2186		if( pMesh->mTangents.size() < pMesh->mPositions.size()-1)
2187		pMesh->mTangents.insert( pMesh->mTangents.end(), pMesh->mPositions.size() - pMesh->mTangents.size() - 1, aiVector3D( 1, 0, 0));
2188
2189		// ignore all tangent streams except 0 - there can be only one tangent
2190		if( pInput.mIndex == 0)
	2190	// pad to current vertex count if necessary
	2191	if( pMesh->mTangents.size() < pMesh->mPositions.size()-1)
	2192	pMesh->mTangents.insert( pMesh->mTangents.end(), pMesh->mPositions.size() - pMesh->mTangents.size() - 1, aiVector3D( 1, 0, 0));
	2193
	2194	// ignore all tangent streams except 0 - there can be only one tangent
	2195	if( pInput.mIndex == 0)
2191	2196	pMesh->mTangents.push_back( aiVector3D( obj[0], obj[1], obj[2]));
2192	2197	else
2193	2198	DefaultLogger::get()->error("Collada: just one vertex tangent stream supported");
2194	2199	break;
2195	2200	case IT_Bitangent:
2196		// pad to current vertex count if necessary
2197		if( pMesh->mBitangents.size() < pMesh->mPositions.size()-1)
2198		pMesh->mBitangents.insert( pMesh->mBitangents.end(), pMesh->mPositions.size() - pMesh->mBitangents.size() - 1, aiVector3D( 0, 0, 1));
2199
2200		// ignore all bitangent streams except 0 - there can be only one bitangent
2201		if( pInput.mIndex == 0)
	2201	// pad to current vertex count if necessary
	2202	if( pMesh->mBitangents.size() < pMesh->mPositions.size()-1)
	2203	pMesh->mBitangents.insert( pMesh->mBitangents.end(), pMesh->mPositions.size() - pMesh->mBitangents.size() - 1, aiVector3D( 0, 0, 1));
	2204
	2205	// ignore all bitangent streams except 0 - there can be only one bitangent
	2206	if( pInput.mIndex == 0)
2202	2207	pMesh->mBitangents.push_back( aiVector3D( obj[0], obj[1], obj[2]));
2203	2208	else
2204	2209	DefaultLogger::get()->error("Collada: just one vertex bitangent stream supported");
2205	2210	break;
2206	2211	case IT_Texcoord:
2207		// up to 4 texture coord sets are fine, ignore the others
	2212	// up to 4 texture coord sets are fine, ignore the others
2208	2213	if( pInput.mIndex < AI_MAX_NUMBER_OF_TEXTURECOORDS)
2209		{
2210		// pad to current vertex count if necessary
2211		if( pMesh->mTexCoords[pInput.mIndex].size() < pMesh->mPositions.size()-1)
2212		pMesh->mTexCoords[pInput.mIndex].insert( pMesh->mTexCoords[pInput.mIndex].end(),
2213		pMesh->mPositions.size() - pMesh->mTexCoords[pInput.mIndex].size() - 1, aiVector3D( 0, 0, 0));
	2214	{
	2215	// pad to current vertex count if necessary
	2216	if( pMesh->mTexCoords[pInput.mIndex].size() < pMesh->mPositions.size()-1)
	2217	pMesh->mTexCoords[pInput.mIndex].insert( pMesh->mTexCoords[pInput.mIndex].end(),
	2218	pMesh->mPositions.size() - pMesh->mTexCoords[pInput.mIndex].size() - 1, aiVector3D( 0, 0, 0));
2214	2219
2215	2220	pMesh->mTexCoords[pInput.mIndex].push_back( aiVector3D( obj[0], obj[1], obj[2]));
2216	2221	if (0 != acc.mSubOffset[2] \|\| 0 != acc.mSubOffset[3]) /* hack ... consider cleaner solution */
2217	2222	pMesh->mNumUVComponents[pInput.mIndex]=3;
2218	2223	} else
2219		{
	2224	{
2220	2225	DefaultLogger::get()->error("Collada: too many texture coordinate sets. Skipping.");
2221		}
	2226	}
2222	2227	break;
2223	2228	case IT_Color:
2224		// up to 4 color sets are fine, ignore the others
	2229	// up to 4 color sets are fine, ignore the others
2225	2230	if( pInput.mIndex < AI_MAX_NUMBER_OF_COLOR_SETS)
2226		{
2227		// pad to current vertex count if necessary
2228		if( pMesh->mColors[pInput.mIndex].size() < pMesh->mPositions.size()-1)
2229		pMesh->mColors[pInput.mIndex].insert( pMesh->mColors[pInput.mIndex].end(),
2230		pMesh->mPositions.size() - pMesh->mColors[pInput.mIndex].size() - 1, aiColor4D( 0, 0, 0, 1));
2231
2232		pMesh->mColors[pInput.mIndex].push_back( aiColor4D( obj[0], obj[1], obj[2], obj[3]));
2233		} else
2234		{
	2231	{
	2232	// pad to current vertex count if necessary
	2233	if( pMesh->mColors[pInput.mIndex].size() < pMesh->mPositions.size()-1)
	2234	pMesh->mColors[pInput.mIndex].insert( pMesh->mColors[pInput.mIndex].end(),
	2235	pMesh->mPositions.size() - pMesh->mColors[pInput.mIndex].size() - 1, aiColor4D( 0, 0, 0, 1));
	2236
	2237	aiColor4D result(0, 0, 0, 1);
	2238	for (size_t i = 0; i < pInput.mResolved->mSize; ++i)
	2239	{
	2240	result[i] = obj[pInput.mResolved->mSubOffset[i]];
	2241	}
	2242	pMesh->mColors[pInput.mIndex].push_back(result);
	2243	} else
	2244	{
2235	2245	DefaultLogger::get()->error("Collada: too many vertex color sets. Skipping.");
2236		}
2237
2238		break;
2239		default:
2240		// IT_Invalid and IT_Vertex
2241		ai_assert(false && "shouldn't ever get here");
	2246	}
	2247
	2248	break;
	2249	default:
	2250	// IT_Invalid and IT_Vertex
	2251	ai_assert(false && "shouldn't ever get here");
2242	2252	}
2243	2253	}
2244	2254

2573	2583	{
2574	2584	// should be the first and only occurence
2575	2585	if( mRootNode)
2576		ThrowException( "Invalid scene containing multiple root nodes");
	2586	ThrowException( "Invalid scene containing multiple root nodes in <instance_visual_scene> element");
2577	2587
2578	2588	// read the url of the scene to instance. Should be of format "#some_name"
2579	2589	int urlIndex = GetAttribute( "url");
2580	2590	const char* url = mReader->getAttributeValue( urlIndex);
2581	2591	if( url[0] != '#')
2582		ThrowException( "Unknown reference format");
	2592	ThrowException( "Unknown reference format in <instance_visual_scene> element");
2583	2593
2584	2594	// find the referred scene, skip the leading #
2585	2595	NodeLibrary::const_iterator sit = mNodeLibrary.find( url+1);
2586	2596	if( sit == mNodeLibrary.end())
2587		ThrowException( "Unable to resolve visual_scene reference \"" + std::string(url) + "\".");
	2597	ThrowException( "Unable to resolve visual_scene reference \"" + std::string(url) + "\" in <instance_visual_scene> element.");
2588	2598	mRootNode = sit->second;
2589	2599	} else {
2590	2600	SkipElement();

2636	2646	{
2637	2647	// read element start
2638	2648	if( !mReader->read())
2639		ThrowException( boost::str( boost::format( "Unexpected end of file while beginning of \"%s\" element.") % pName));
	2649	ThrowException( boost::str( boost::format( "Unexpected end of file while beginning of <%s> element.") % pName));
2640	2650	// whitespace in front is ok, just read again if found
2641	2651	if( mReader->getNodeType() == irr::io::EXN_TEXT)
2642	2652	if( !mReader->read())
2643		ThrowException( boost::str( boost::format( "Unexpected end of file while reading beginning of \"%s\" element.") % pName));
	2653	ThrowException( boost::str( boost::format( "Unexpected end of file while reading beginning of <%s> element.") % pName));
2644	2654
2645	2655	if( mReader->getNodeType() != irr::io::EXN_ELEMENT \|\| strcmp( mReader->getNodeName(), pName) != 0)
2646		ThrowException( boost::str( boost::format( "Expected start of \"%s\" element.") % pName));
	2656	ThrowException( boost::str( boost::format( "Expected start of <%s> element.") % pName));
2647	2657	}
2648	2658
2649	2659	// ------------------------------------------------------------------------------------------------

2656	2666
2657	2667	// if not, read some more
2658	2668	if( !mReader->read())
2659		ThrowException( boost::str( boost::format( "Unexpected end of file while reading end of \"%s\" element.") % pName));
	2669	ThrowException( boost::str( boost::format( "Unexpected end of file while reading end of <%s> element.") % pName));
2660	2670	// whitespace in front is ok, just read again if found
2661	2671	if( mReader->getNodeType() == irr::io::EXN_TEXT)
2662	2672	if( !mReader->read())
2663		ThrowException( boost::str( boost::format( "Unexpected end of file while reading end of \"%s\" element.") % pName));
	2673	ThrowException( boost::str( boost::format( "Unexpected end of file while reading end of <%s> element.") % pName));
2664	2674
2665	2675	// but this has the be the closing tag, or we're lost
2666	2676	if( mReader->getNodeType() != irr::io::EXN_ELEMENT_END \|\| strcmp( mReader->getNodeName(), pName) != 0)
2667		ThrowException( boost::str( boost::format( "Expected end of \"%s\" element.") % pName));
	2677	ThrowException( boost::str( boost::format( "Expected end of <%s> element.") % pName));
2668	2678	}
2669	2679
2670	2680	// ------------------------------------------------------------------------------------------------

2676	2686	return index;
2677	2687
2678	2688	// attribute not found -> throw an exception
2679		ThrowException( boost::str( boost::format( "Expected attribute \"%s\" at element \"%s\".") % pAttr % mReader->getNodeName()));
	2689	ThrowException( boost::str( boost::format( "Expected attribute \"%s\" for element <%s>.") % pAttr % mReader->getNodeName()));
2680	2690	return -1;
2681	2691	}
2682	2692

-1

code/ComputeUVMappingProcess.cpp less more

379	379	}
380	380
381	381	// ------------------------------------------------------------------------------------------------
382		void ComputeUVMappingProcess::ComputeBoxMapping(aiMesh* /mesh/, aiVector3D* /out/)
	382	void ComputeUVMappingProcess::ComputeBoxMapping( aiMesh, aiVector3D )
383	383	{
384	384	DefaultLogger::get()->error("Mapping type currently not implemented");
385	385	}

-1

code/DefaultIOStream.cpp less more

109	109
110	110	if (SIZE_MAX == cachedSize) {
111	111
112		// TODO: Is that really faster if we're already owning a handle to the file?
	112	// Although fseek/ftell would allow us to reuse the exising file handle here,
	113	// it is generally unsafe because:
	114	// - For binary streams, it is not technically well-defined
	115	// - For text files the results are meaningless
	116	// That's why we use the safer variant fstat here.
	117	//
	118	// See here for details:
	119	// https://www.securecoding.cert.org/confluence/display/seccode/FIO19-C.+Do+not+use+fseek()+and+ftell()+to+compute+the+size+of+a+regular+file
113	120	#if defined _WIN32 && !defined __GNUC__
114	121	struct __stat64 fileStat;
115	122	int err = _stat64( mFilename.c_str(), &fileStat );

-4

code/DefaultLogger.cpp less more

252	252	if ( m_Severity == Logger::NORMAL )
253	253	return;
254	254
255		char msg[MAX_LOG_MESSAGE_LENGTH*2];
	255	char msg[MAX_LOG_MESSAGE_LENGTH + 16];
256	256	::sprintf(msg,"Debug, T%i: %s", GetThreadID(), message );
257	257
258	258	WriteToStreams( msg, Logger::Debugging );

262	262	// Logs an info
263	263	void DefaultLogger::OnInfo( const char* message )
264	264	{
265		char msg[MAX_LOG_MESSAGE_LENGTH*2];
	265	char msg[MAX_LOG_MESSAGE_LENGTH + 16];
266	266	::sprintf(msg,"Info, T%i: %s", GetThreadID(), message );
267	267
268	268	WriteToStreams( msg , Logger::Info );

272	272	// Logs a warning
273	273	void DefaultLogger::OnWarn( const char* message )
274	274	{
275		char msg[MAX_LOG_MESSAGE_LENGTH*2];
	275	char msg[MAX_LOG_MESSAGE_LENGTH + 16];
276	276	::sprintf(msg,"Warn, T%i: %s", GetThreadID(), message );
277	277
278	278	WriteToStreams( msg, Logger::Warn );

282	282	// Logs an error
283	283	void DefaultLogger::OnError( const char* message )
284	284	{
285		char msg[MAX_LOG_MESSAGE_LENGTH*2];
	285	char msg[MAX_LOG_MESSAGE_LENGTH + 16];
286	286	::sprintf(msg,"Error, T%i: %s", GetThreadID(), message );
287	287
288	288	WriteToStreams( msg, Logger::Err );

+62

-7

code/Exporter.cpp less more

59	59	#include "BaseProcess.h"
60	60	#include "Importer.h" // need this for GetPostProcessingStepInstanceList()
61	61
	62	#include "JoinVerticesProcess.h"
62	63	#include "MakeVerboseFormat.h"
63	64	#include "ConvertToLHProcess.h"
64	65

72	73	void ExportSceneCollada(const char,IOSystem, const aiScene*);
73	74	void ExportSceneObj(const char,IOSystem, const aiScene*);
74	75	void ExportSceneSTL(const char,IOSystem, const aiScene*);
	76	void ExportSceneSTLBinary(const char,IOSystem, const aiScene*);
75	77	void ExportScenePly(const char,IOSystem, const aiScene*);
76	78	void ExportScene3DS(const char, IOSystem, const aiScene*) {}
77	79

84	86	#endif
85	87
86	88	#ifndef ASSIMP_BUILD_NO_OBJ_EXPORTER
87		Exporter::ExportFormatEntry( "obj", "Wavefront OBJ format", "obj", &ExportSceneObj),
	89	Exporter::ExportFormatEntry( "obj", "Wavefront OBJ format", "obj", &ExportSceneObj,
	90	aiProcess_GenSmoothNormals /\| aiProcess_PreTransformVertices /),
88	91	#endif
89	92
90	93	#ifndef ASSIMP_BUILD_NO_STL_EXPORTER
91	94	Exporter::ExportFormatEntry( "stl", "Stereolithography", "stl" , &ExportSceneSTL,
	95	aiProcess_Triangulate \| aiProcess_GenNormals \| aiProcess_PreTransformVertices
	96	),
	97	Exporter::ExportFormatEntry( "stlb", "Stereolithography (binary)", "stl" , &ExportSceneSTLBinary,
92	98	aiProcess_Triangulate \| aiProcess_GenNormals \| aiProcess_PreTransformVertices
93	99	),
94	100	#endif

169	175	Exporter :: ~Exporter()
170	176	{
171	177	FreeBlob();
	178
	179	delete pimpl;
172	180	}
173	181
174	182

195	203
196	204
197	205	// ------------------------------------------------------------------------------------------------
198		const aiExportDataBlob* Exporter :: ExportToBlob( const aiScene* pScene, const char* pFormatId, unsigned int pPreprocessing )
	206	const aiExportDataBlob* Exporter :: ExportToBlob( const aiScene* pScene, const char* pFormatId, unsigned int )
199	207	{
200	208	if (pimpl->blob) {
201	209	delete pimpl->blob;

221	229
222	230
223	231	// ------------------------------------------------------------------------------------------------
	232	bool IsVerboseFormat(const aiMesh* mesh)
	233	{
	234	// avoid slow vector<bool> specialization
	235	std::vector<unsigned int> seen(mesh->mNumVertices,0);
	236	for(unsigned int i = 0; i < mesh->mNumFaces; ++i) {
	237	const aiFace& f = mesh->mFaces[i];
	238	for(unsigned int j = 0; j < f.mNumIndices; ++j) {
	239	if(++seen[f.mIndices[j]] == 2) {
	240	// found a duplicate index
	241	return false;
	242	}
	243	}
	244	}
	245	return true;
	246	}
	247
	248
	249	// ------------------------------------------------------------------------------------------------
	250	bool IsVerboseFormat(const aiScene* pScene)
	251	{
	252	for(unsigned int i = 0; i < pScene->mNumMeshes; ++i) {
	253	if(!IsVerboseFormat(pScene->mMeshes[i])) {
	254	return false;
	255	}
	256	}
	257	return true;
	258	}
	259
	260
	261	// ------------------------------------------------------------------------------------------------
224	262	aiReturn Exporter :: Export( const aiScene* pScene, const char* pFormatId, const char* pPath, unsigned int pPreprocessing )
225	263	{
226	264	ASSIMP_BEGIN_EXCEPTION_REGION();
	265
	266	// when they create scenes from scratch, users will likely create them not in verbose
	267	// format. They will likely not be aware that there is a flag in the scene to indicate
	268	// this, however. To avoid surprises and bug reports, we check for duplicates in
	269	// meshes upfront.
	270	const bool is_verbose_format = !(pScene->mFlags & AI_SCENE_FLAGS_NON_VERBOSE_FORMAT) \|\| IsVerboseFormat(pScene);
227	271
228	272	pimpl->mError = "";
229	273	for (size_t i = 0; i < pimpl->mExporters.size(); ++i) {

246	290	const unsigned int nonIdempotentSteps = aiProcess_FlipWindingOrder \| aiProcess_FlipUVs \| aiProcess_MakeLeftHanded;
247	291
248	292	// Erase all pp steps that were already applied to this scene
249		unsigned int pp = (exp.mEnforcePP \| pPreprocessing) & ~(priv
	293	const unsigned int pp = (exp.mEnforcePP \| pPreprocessing) & ~(priv && !priv->mIsCopy
250	294	? (priv->mPPStepsApplied & ~nonIdempotentSteps)
251	295	: 0u);
252	296
253	297	// If no extra postprocessing was specified, and we obtained this scene from an
254	298	// Assimp importer, apply the reverse steps automatically.
255		if (!pPreprocessing && priv) {
256		pp \|= (nonIdempotentSteps & priv->mPPStepsApplied);
257		}
	299	// TODO: either drop this, or document it. Otherwise it is just a bad surprise.
	300	//if (!pPreprocessing && priv) {
	301	// pp \|= (nonIdempotentSteps & priv->mPPStepsApplied);
	302	//}
258	303
259	304	// If the input scene is not in verbose format, but there is at least postprocessing step that relies on it,
260	305	// we need to run the MakeVerboseFormat step first.
261		if (scenecopy->mFlags & AI_SCENE_FLAGS_NON_VERBOSE_FORMAT) {
	306	bool must_join_again = false;
	307	if (!is_verbose_format) {
262	308
263	309	bool verbosify = false;
264	310	for( unsigned int a = 0; a < pimpl->mPostProcessingSteps.size(); a++) {

275	321
276	322	MakeVerboseFormatProcess proc;
277	323	proc.Execute(scenecopy.get());
	324
	325	if(!(exp.mEnforcePP & aiProcess_JoinIdenticalVertices)) {
	326	must_join_again = true;
	327	}
278	328	}
279	329	}
280	330

317	367	ai_assert(privOut);
318	368
319	369	privOut->mPPStepsApplied \|= pp;
	370	}
	371
	372	if(must_join_again) {
	373	JoinVerticesProcess proc;
	374	proc.Execute(scenecopy.get());
320	375	}
321	376
322	377	exp.mExportFunction(pPath,pimpl->mIOSystem.get(),scenecopy.get());

+313

-0

code/FBXAnimation.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXAnimation.cpp
	41	* @brief Assimp::FBX::AnimationCurve, Assimp::FBX::AnimationCurveNode,
	42	* Assimp::FBX::AnimationLayer, Assimp::FBX::AnimationStack
	43	*/
	44	#include "AssimpPCH.h"
	45
	46	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	47
	48	#include "FBXParser.h"
	49	#include "FBXDocument.h"
	50	#include "FBXImporter.h"
	51	#include "FBXImportSettings.h"
	52	#include "FBXDocumentUtil.h"
	53	#include "FBXProperties.h"
	54
	55	namespace Assimp {
	56	namespace FBX {
	57
	58	using namespace Util;
	59
	60	// ------------------------------------------------------------------------------------------------
	61	AnimationCurve::AnimationCurve(uint64_t id, const Element& element, const std::string& name, const Document& doc)
	62	: Object(id, element, name)
	63	{
	64	const Scope& sc = GetRequiredScope(element);
	65	const Element& KeyTime = GetRequiredElement(sc,"KeyTime");
	66	const Element& KeyValueFloat = GetRequiredElement(sc,"KeyValueFloat");
	67
	68	ParseVectorDataArray(keys, KeyTime);
	69	ParseVectorDataArray(values, KeyValueFloat);
	70
	71	if(keys.size() != values.size()) {
	72	DOMError("the number of key times does not match the number of keyframe values",&KeyTime);
	73	}
	74
	75	// check if the key times are well-ordered
	76	if(!std::equal(keys.begin(), keys.end() - 1, keys.begin() + 1, std::less<KeyTimeList::value_type>())) {
	77	DOMError("the keyframes are not in ascending order",&KeyTime);
	78	}
	79
	80	const Element* KeyAttrDataFloat = sc["KeyAttrDataFloat"];
	81	if(KeyAttrDataFloat) {
	82	ParseVectorDataArray(attributes, *KeyAttrDataFloat);
	83	}
	84
	85	const Element* KeyAttrFlags = sc["KeyAttrFlags"];
	86	if(KeyAttrFlags) {
	87	ParseVectorDataArray(flags, *KeyAttrFlags);
	88	}
	89	}
	90
	91
	92	// ------------------------------------------------------------------------------------------------
	93	AnimationCurve::~AnimationCurve()
	94	{
	95
	96	}
	97
	98
	99	// ------------------------------------------------------------------------------------------------
	100	AnimationCurveNode::AnimationCurveNode(uint64_t id, const Element& element, const std::string& name, const Document& doc,
	101	const char* const * target_prop_whitelist /= NULL/, size_t whitelist_size /= 0/)
	102	: Object(id, element, name)
	103	, target()
	104	, doc(doc)
	105	{
	106	const Scope& sc = GetRequiredScope(element);
	107
	108	// find target node
	109	const char* whitelist[] = {"Model","NodeAttribute"};
	110	const std::vector<const Connection*>& conns = doc.GetConnectionsBySourceSequenced(ID(),whitelist,2);
	111
	112	BOOST_FOREACH(const Connection* con, conns) {
	113
	114	// link should go for a property
	115	if (!con->PropertyName().length()) {
	116	continue;
	117	}
	118
	119	if(target_prop_whitelist) {
	120	const char* const s = con->PropertyName().c_str();
	121	bool ok = false;
	122	for (size_t i = 0; i < whitelist_size; ++i) {
	123	if (!strcmp(s, target_prop_whitelist[i])) {
	124	ok = true;
	125	break;
	126	}
	127	}
	128
	129	if (!ok) {
	130	throw std::range_error("AnimationCurveNode target property is not in whitelist");
	131	}
	132	}
	133
	134	const Object* const ob = con->DestinationObject();
	135	if(!ob) {
	136	DOMWarning("failed to read destination object for AnimationCurveNode->Model link, ignoring",&element);
	137	continue;
	138	}
	139
	140	// XXX support constraints as DOM class
	141	//ai_assert(dynamic_cast<const Model>(ob) \|\| dynamic_cast<const NodeAttribute>(ob));
	142	target = ob;
	143	if(!target) {
	144	continue;
	145	}
	146
	147	prop = con->PropertyName();
	148	break;
	149	}
	150
	151	if(!target) {
	152	DOMWarning("failed to resolve target Model/NodeAttribute/Constraint for AnimationCurveNode",&element);
	153	}
	154
	155	props = GetPropertyTable(doc,"AnimationCurveNode.FbxAnimCurveNode",element,sc,false);
	156	}
	157
	158
	159	// ------------------------------------------------------------------------------------------------
	160	AnimationCurveNode::~AnimationCurveNode()
	161	{
	162
	163	}
	164
	165
	166	// ------------------------------------------------------------------------------------------------
	167	const AnimationCurveMap& AnimationCurveNode::Curves() const
	168	{
	169	if(curves.empty()) {
	170	// resolve attached animation curves
	171	const std::vector<const Connection*>& conns = doc.GetConnectionsByDestinationSequenced(ID(),"AnimationCurve");
	172
	173	BOOST_FOREACH(const Connection* con, conns) {
	174
	175	// link should go for a property
	176	if (!con->PropertyName().length()) {
	177	continue;
	178	}
	179
	180	const Object* const ob = con->SourceObject();
	181	if(!ob) {
	182	DOMWarning("failed to read source object for AnimationCurve->AnimationCurveNode link, ignoring",&element);
	183	continue;
	184	}
	185
	186	const AnimationCurve* const anim = dynamic_cast<const AnimationCurve*>(ob);
	187	if(!anim) {
	188	DOMWarning("source object for ->AnimationCurveNode link is not an AnimationCurve",&element);
	189	continue;
	190	}
	191
	192	curves[con->PropertyName()] = anim;
	193	}
	194	}
	195
	196	return curves;
	197	}
	198
	199
	200	// ------------------------------------------------------------------------------------------------
	201	AnimationLayer::AnimationLayer(uint64_t id, const Element& element, const std::string& name, const Document& doc)
	202	: Object(id, element, name)
	203	, doc(doc)
	204	{
	205	const Scope& sc = GetRequiredScope(element);
	206
	207	// note: the props table here bears little importance and is usually absent
	208	props = GetPropertyTable(doc,"AnimationLayer.FbxAnimLayer",element,sc, true);
	209	}
	210
	211
	212	// ------------------------------------------------------------------------------------------------
	213	AnimationLayer::~AnimationLayer()
	214	{
	215
	216	}
	217
	218
	219	// ------------------------------------------------------------------------------------------------
	220	AnimationCurveNodeList AnimationLayer::Nodes(const char* const * target_prop_whitelist /= NULL/,
	221	size_t whitelist_size /= 0/) const
	222	{
	223	AnimationCurveNodeList nodes;
	224
	225	// resolve attached animation nodes
	226	const std::vector<const Connection*>& conns = doc.GetConnectionsByDestinationSequenced(ID(),"AnimationCurveNode");
	227	nodes.reserve(conns.size());
	228
	229	BOOST_FOREACH(const Connection* con, conns) {
	230
	231	// link should not go to a property
	232	if (con->PropertyName().length()) {
	233	continue;
	234	}
	235
	236	const Object* const ob = con->SourceObject();
	237	if(!ob) {
	238	DOMWarning("failed to read source object for AnimationCurveNode->AnimationLayer link, ignoring",&element);
	239	continue;
	240	}
	241
	242	const AnimationCurveNode* const anim = dynamic_cast<const AnimationCurveNode*>(ob);
	243	if(!anim) {
	244	DOMWarning("source object for ->AnimationLayer link is not an AnimationCurveNode",&element);
	245	continue;
	246	}
	247
	248	if(target_prop_whitelist) {
	249	const char* s = anim->TargetProperty().c_str();
	250	bool ok = false;
	251	for (size_t i = 0; i < whitelist_size; ++i) {
	252	if (!strcmp(s, target_prop_whitelist[i])) {
	253	ok = true;
	254	break;
	255	}
	256	}
	257	if(!ok) {
	258	continue;
	259	}
	260	}
	261	nodes.push_back(anim);
	262	}
	263
	264	return nodes; // pray for NRVO
	265	}
	266
	267	// ------------------------------------------------------------------------------------------------
	268	AnimationStack::AnimationStack(uint64_t id, const Element& element, const std::string& name, const Document& doc)
	269	: Object(id, element, name)
	270	{
	271	const Scope& sc = GetRequiredScope(element);
	272
	273	// note: we don't currently use any of these properties so we shouldn't bother if it is missing
	274	props = GetPropertyTable(doc,"AnimationStack.FbxAnimStack",element,sc, true);
	275
	276	// resolve attached animation layers
	277	const std::vector<const Connection*>& conns = doc.GetConnectionsByDestinationSequenced(ID(),"AnimationLayer");
	278	layers.reserve(conns.size());
	279
	280	BOOST_FOREACH(const Connection* con, conns) {
	281
	282	// link should not go to a property
	283	if (con->PropertyName().length()) {
	284	continue;
	285	}
	286
	287	const Object* const ob = con->SourceObject();
	288	if(!ob) {
	289	DOMWarning("failed to read source object for AnimationLayer->AnimationStack link, ignoring",&element);
	290	continue;
	291	}
	292
	293	const AnimationLayer* const anim = dynamic_cast<const AnimationLayer*>(ob);
	294	if(!anim) {
	295	DOMWarning("source object for ->AnimationStack link is not an AnimationLayer",&element);
	296	continue;
	297	}
	298	layers.push_back(anim);
	299	}
	300	}
	301
	302
	303	// ------------------------------------------------------------------------------------------------
	304	AnimationStack::~AnimationStack()
	305	{
	306
	307	}
	308
	309	} //!FBX
	310	} //!Assimp
	311
	312	#endif

+398

-0

code/FBXBinaryTokenizer.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39	/** @file FBXBinaryTokenizer.cpp
	40	* @brief Implementation of a fake lexer for binary fbx files -
	41	* we emit tokens so the parser needs almost no special handling
	42	* for binary files.
	43	*/
	44	#include "AssimpPCH.h"
	45
	46	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	47
	48	#include "FBXTokenizer.h"
	49	#include "FBXUtil.h"
	50
	51	namespace Assimp {
	52	namespace FBX {
	53
	54
	55	// ------------------------------------------------------------------------------------------------
	56	Token::Token(const char* sbegin, const char* send, TokenType type, unsigned int offset)
	57	: sbegin(sbegin)
	58	, send(send)
	59	, type(type)
	60	, line(offset)
	61	, column(BINARY_MARKER)
	62	#ifdef DEBUG
	63	, contents(sbegin, static_cast<size_t>(send-sbegin))
	64	#endif
	65	{
	66	ai_assert(sbegin);
	67	ai_assert(send);
	68
	69	// binary tokens may have zero length because they are sometimes dummies
	70	// inserted by TokenizeBinary()
	71	ai_assert(send >= sbegin);
	72	}
	73
	74
	75	namespace {
	76
	77	// ------------------------------------------------------------------------------------------------
	78	// signal tokenization error, this is always unrecoverable. Throws DeadlyImportError.
	79	void TokenizeError(const std::string& message, unsigned int offset)
	80	{
	81	throw DeadlyImportError(Util::AddOffset("FBX-Tokenize",message,offset));
	82	}
	83
	84
	85	// ------------------------------------------------------------------------------------------------
	86	uint32_t Offset(const char* begin, const char* cursor)
	87	{
	88	ai_assert(begin <= cursor);
	89	return static_cast<unsigned int>(cursor - begin);
	90	}
	91
	92
	93	// ------------------------------------------------------------------------------------------------
	94	void TokenizeError(const std::string& message, const char* begin, const char* cursor)
	95	{
	96	TokenizeError(message, Offset(begin, cursor));
	97	}
	98
	99
	100	// ------------------------------------------------------------------------------------------------
	101	uint32_t ReadWord(const char* input, const char& cursor, const char end)
	102	{
	103	if(Offset(cursor, end) < 4) {
	104	TokenizeError("cannot ReadWord, out of bounds",input, cursor);
	105	}
	106
	107	uint32_t word = reinterpret_cast<const uint32_t>(cursor);
	108	AI_SWAP4(word);
	109
	110	cursor += 4;
	111
	112	return word;
	113	}
	114
	115
	116	// ------------------------------------------------------------------------------------------------
	117	uint8_t ReadByte(const char* input, const char& cursor, const char end)
	118	{
	119	if(Offset(cursor, end) < 1) {
	120	TokenizeError("cannot ReadByte, out of bounds",input, cursor);
	121	}
	122
	123	uint8_t word = reinterpret_cast<const uint8_t>(cursor);
	124	++cursor;
	125
	126	return word;
	127	}
	128
	129
	130	// ------------------------------------------------------------------------------------------------
	131	unsigned int ReadString(const char& sbegin_out, const char& send_out, const char* input, const char& cursor, const char end,
	132	bool long_length = false,
	133	bool allow_null = false)
	134	{
	135	const uint32_t len_len = long_length ? 4 : 1;
	136	if(Offset(cursor, end) < len_len) {
	137	TokenizeError("cannot ReadString, out of bounds reading length",input, cursor);
	138	}
	139
	140	const uint32_t length = long_length ? ReadWord(input, cursor, end) : ReadByte(input, cursor, end);
	141
	142	if (Offset(cursor, end) < length) {
	143	TokenizeError("cannot ReadString, length is out of bounds",input, cursor);
	144	}
	145
	146	sbegin_out = cursor;
	147	cursor += length;
	148
	149	send_out = cursor;
	150
	151	if(!allow_null) {
	152	for (unsigned int i = 0; i < length; ++i) {
	153	if(sbegin_out[i] == '\0') {
	154	TokenizeError("failed ReadString, unexpected NUL character in string",input, cursor);
	155	}
	156	}
	157	}
	158
	159	return length;
	160	}
	161
	162
	163
	164	// ------------------------------------------------------------------------------------------------
	165	void ReadData(const char& sbegin_out, const char& send_out, const char* input, const char& cursor, const char end)
	166	{
	167	if(Offset(cursor, end) < 1) {
	168	TokenizeError("cannot ReadData, out of bounds reading length",input, cursor);
	169	}
	170
	171	const char type = *cursor;
	172	sbegin_out = cursor++;
	173
	174	switch(type)
	175	{
	176	// 16 bit int
	177	case 'Y':
	178	cursor += 2;
	179	break;
	180
	181	// 1 bit bool flag (yes/no)
	182	case 'C':
	183	cursor += 1;
	184	break;
	185
	186	// 32 bit int
	187	case 'I':
	188	// <- fall thru
	189
	190	// float
	191	case 'F':
	192	cursor += 4;
	193	break;
	194
	195	// double
	196	case 'D':
	197	cursor += 8;
	198	break;
	199
	200	// 64 bit int
	201	case 'L':
	202	cursor += 8;
	203	break;
	204
	205	// note: do not write cursor += ReadWord(...cursor) as this would be UB
	206
	207	// raw binary data
	208	case 'R':
	209	{
	210	const uint32_t length = ReadWord(input, cursor, end);
	211	cursor += length;
	212	break;
	213	}
	214
	215	case 'b':
	216	// TODO: what is the 'b' type code? Right now we just skip over it /
	217	// take the full range we could get
	218	cursor = end;
	219	break;
	220
	221	// array of *
	222	case 'f':
	223	case 'd':
	224	case 'l':
	225	case 'i': {
	226
	227	const uint32_t length = ReadWord(input, cursor, end);
	228	const uint32_t encoding = ReadWord(input, cursor, end);
	229
	230	const uint32_t comp_len = ReadWord(input, cursor, end);
	231
	232	// compute length based on type and check against the stored value
	233	if(encoding == 0) {
	234	uint32_t stride = 0;
	235	switch(type)
	236	{
	237	case 'f':
	238	case 'i':
	239	stride = 4;
	240	break;
	241
	242	case 'd':
	243	case 'l':
	244	stride = 8;
	245	break;
	246
	247	default:
	248	ai_assert(false);
	249	};
	250	ai_assert(stride > 0);
	251	if(length * stride != comp_len) {
	252	TokenizeError("cannot ReadData, calculated data stride differs from what the file claims",input, cursor);
	253	}
	254	}
	255	// zip/deflate algorithm (encoding==1)? take given length. anything else? die
	256	else if (encoding != 1) {
	257	TokenizeError("cannot ReadData, unknown encoding",input, cursor);
	258	}
	259	cursor += comp_len;
	260	break;
	261	}
	262
	263	// string
	264	case 'S': {
	265	const char* sb, *se;
	266	// 0 characters can legally happen in such strings
	267	ReadString(sb, se, input, cursor, end, true, true);
	268	break;
	269	}
	270	default:
	271	TokenizeError("cannot ReadData, unexpected type code: " + std::string(&type, 1),input, cursor);
	272	}
	273
	274	if(cursor > end) {
	275	TokenizeError("cannot ReadData, the remaining size is too small for the data type: " + std::string(&type, 1),input, cursor);
	276	}
	277
	278	// the type code is contained in the returned range
	279	send_out = cursor;
	280	}
	281
	282
	283	// ------------------------------------------------------------------------------------------------
	284	bool ReadScope(TokenList& output_tokens, const char* input, const char& cursor, const char end)
	285	{
	286	// the first word contains the offset at which this block ends
	287	const uint32_t end_offset = ReadWord(input, cursor, end);
	288
	289	// we may get 0 if reading reached the end of the file -
	290	// fbx files have a mysterious extra footer which I don't know
	291	// how to extract any information from, but at least it always
	292	// starts with a 0.
	293	if(!end_offset) {
	294	return false;
	295	}
	296
	297	if(end_offset > Offset(input, end)) {
	298	TokenizeError("block offset is out of range",input, cursor);
	299	}
	300	else if(end_offset < Offset(input, cursor)) {
	301	TokenizeError("block offset is negative out of range",input, cursor);
	302	}
	303
	304	// the second data word contains the number of properties in the scope
	305	const uint32_t prop_count = ReadWord(input, cursor, end);
	306
	307	// the third data word contains the length of the property list
	308	const uint32_t prop_length = ReadWord(input, cursor, end);
	309
	310	// now comes the name of the scope/key
	311	const char* sbeg, *send;
	312	ReadString(sbeg, send, input, cursor, end);
	313
	314	output_tokens.push_back(new_Token(sbeg, send, TokenType_KEY, Offset(input, cursor) ));
	315
	316	// now come the individual properties
	317	const char* begin_cursor = cursor;
	318	for (unsigned int i = 0; i < prop_count; ++i) {
	319	ReadData(sbeg, send, input, cursor, begin_cursor + prop_length);
	320
	321	output_tokens.push_back(new_Token(sbeg, send, TokenType_DATA, Offset(input, cursor) ));
	322
	323	if(i != prop_count-1) {
	324	output_tokens.push_back(new_Token(cursor, cursor + 1, TokenType_COMMA, Offset(input, cursor) ));
	325	}
	326	}
	327
	328	if (Offset(begin_cursor, cursor) != prop_length) {
	329	TokenizeError("property length not reached, something is wrong",input, cursor);
	330	}
	331
	332	// at the end of each nested block, there is a NUL record to indicate
	333	// that the sub-scope exists (i.e. to distinguish between P: and P : {})
	334	// this NUL record is 13 bytes long.
	335	#define BLOCK_SENTINEL_LENGTH 13
	336
	337	if (Offset(input, cursor) < end_offset) {
	338
	339	if (end_offset - Offset(input, cursor) < BLOCK_SENTINEL_LENGTH) {
	340	TokenizeError("insufficient padding bytes at block end",input, cursor);
	341	}
	342
	343	output_tokens.push_back(new_Token(cursor, cursor + 1, TokenType_OPEN_BRACKET, Offset(input, cursor) ));
	344
	345	// XXX this is vulnerable to stack overflowing ..
	346	while(Offset(input, cursor) < end_offset - BLOCK_SENTINEL_LENGTH) {
	347	ReadScope(output_tokens, input, cursor, input + end_offset - BLOCK_SENTINEL_LENGTH);
	348	}
	349	output_tokens.push_back(new_Token(cursor, cursor + 1, TokenType_CLOSE_BRACKET, Offset(input, cursor) ));
	350
	351	for (unsigned int i = 0; i < BLOCK_SENTINEL_LENGTH; ++i) {
	352	if(cursor[i] != '\0') {
	353	TokenizeError("failed to read nested block sentinel, expected all bytes to be 0",input, cursor);
	354	}
	355	}
	356	cursor += BLOCK_SENTINEL_LENGTH;
	357	}
	358
	359	if (Offset(input, cursor) != end_offset) {
	360	TokenizeError("scope length not reached, something is wrong",input, cursor);
	361	}
	362
	363	return true;
	364	}
	365
	366
	367	}
	368
	369	// ------------------------------------------------------------------------------------------------
	370	void TokenizeBinary(TokenList& output_tokens, const char* input, unsigned int length)
	371	{
	372	ai_assert(input);
	373
	374	if(length < 0x1b) {
	375	TokenizeError("file is too short",0);
	376	}
	377
	378	if (strncmp(input,"Kaydara FBX Binary",18)) {
	379	TokenizeError("magic bytes not found",0);
	380	}
	381
	382
	383	//uint32_t offset = 0x1b;
	384
	385	const char* cursor = input + 0x1b;
	386
	387	while (cursor < input + length) {
	388	if(!ReadScope(output_tokens, input, cursor, input + length)) {
	389	break;
	390	}
	391	}
	392	}
	393
	394	} // !FBX
	395	} // !Assimp
	396
	397	#endif⏎

+66

-0

code/FBXCompileConfig.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXCompileConfig.h
	41	* @brief FBX importer compile-time switches
	42	*/
	43	#ifndef INCLUDED_AI_FBX_COMPILECONFIG_H
	44	#define INCLUDED_AI_FBX_COMPILECONFIG_H
	45
	46	//
	47	#if _MSC_VER > 1500 \|\| (defined __GNUC___)
	48	# define ASSIMP_FBX_USE_UNORDERED_MULTIMAP
	49	# else
	50	# define fbx_unordered_map map
	51	# define fbx_unordered_multimap multimap
	52	#endif
	53
	54	#ifdef ASSIMP_FBX_USE_UNORDERED_MULTIMAP
	55	# include <unordered_map>
	56	# if _MSC_VER > 1600
	57	# define fbx_unordered_map unordered_map
	58	# define fbx_unordered_multimap unordered_multimap
	59	# else
	60	# define fbx_unordered_map tr1::unordered_map
	61	# define fbx_unordered_multimap tr1::unordered_multimap
	62	# endif
	63	#endif
	64
	65	#endif

+2982

-0

code/FBXConverter.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXConverter.cpp
	41	* @brief Implementation of the FBX DOM -> aiScene converter
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	#include <iterator>
	48	#include <sstream>
	49	#include <boost/tuple/tuple.hpp>
	50
	51	#include "FBXParser.h"
	52	#include "FBXConverter.h"
	53	#include "FBXDocument.h"
	54	#include "FBXUtil.h"
	55	#include "FBXProperties.h"
	56	#include "FBXImporter.h"
	57
	58	namespace Assimp {
	59	namespace FBX {
	60
	61	using namespace Util;
	62
	63
	64	#define MAGIC_NODE_TAG "_$AssimpFbx$"
	65
	66	#define CONVERT_FBX_TIME(time) static_cast<double>(time) / 46186158000L
	67
	68	// XXX vc9's debugger won't step into anonymous namespaces
	69	//namespace {
	70
	71	/** Dummy class to encapsulate the conversion process */
	72	class Converter
	73	{
	74	public:
	75
	76	/** the different parts that make up the final local transformation of a fbx node */
	77	enum TransformationComp
	78	{
	79	TransformationComp_Translation = 0,
	80	TransformationComp_RotationOffset,
	81	TransformationComp_RotationPivot,
	82	TransformationComp_PreRotation,
	83	TransformationComp_Rotation,
	84	TransformationComp_PostRotation,
	85	TransformationComp_RotationPivotInverse,
	86	TransformationComp_ScalingOffset,
	87	TransformationComp_ScalingPivot,
	88	TransformationComp_Scaling,
	89	TransformationComp_ScalingPivotInverse,
	90	TransformationComp_GeometricTranslation,
	91	TransformationComp_GeometricRotation,
	92	TransformationComp_GeometricScaling,
	93
	94	TransformationComp_MAXIMUM
	95	};
	96
	97	public:
	98
	99	Converter(aiScene* out, const Document& doc)
	100	: defaultMaterialIndex()
	101	, out(out)
	102	, doc(doc)
	103	{
	104	// animations need to be converted first since this will
	105	// populate the node_anim_chain_bits map, which is needed
	106	// to determine which nodes need to be generated.
	107	ConvertAnimations();
	108	ConvertRootNode();
	109
	110	if(doc.Settings().readAllMaterials) {
	111	// unfortunately this means we have to evaluate all objects
	112	BOOST_FOREACH(const ObjectMap::value_type& v,doc.Objects()) {
	113
	114	const Object* ob = v.second->Get();
	115	if(!ob) {
	116	continue;
	117	}
	118
	119	const Material* mat = dynamic_cast<const Material*>(ob);
	120	if(mat) {
	121
	122	if (materials_converted.find(mat) == materials_converted.end()) {
	123	ConvertMaterial(*mat, 0);
	124	}
	125	}
	126	}
	127	}
	128
	129	TransferDataToScene();
	130
	131	// if we didn't read any meshes set the AI_SCENE_FLAGS_INCOMPLETE
	132	// to make sure the scene passes assimp's validation. FBX files
	133	// need not contain geometry (i.e. camera animations, raw armatures).
	134	if (out->mNumMeshes == 0) {
	135	out->mFlags \|= AI_SCENE_FLAGS_INCOMPLETE;
	136	}
	137	}
	138
	139
	140	~Converter()
	141	{
	142	std::for_each(meshes.begin(),meshes.end(),Util::delete_fun<aiMesh>());
	143	std::for_each(materials.begin(),materials.end(),Util::delete_fun<aiMaterial>());
	144	std::for_each(animations.begin(),animations.end(),Util::delete_fun<aiAnimation>());
	145	std::for_each(lights.begin(),lights.end(),Util::delete_fun<aiLight>());
	146	std::for_each(cameras.begin(),cameras.end(),Util::delete_fun<aiCamera>());
	147	}
	148
	149
	150	private:
	151
	152	// ------------------------------------------------------------------------------------------------
	153	// find scene root and trigger recursive scene conversion
	154	void ConvertRootNode()
	155	{
	156	out->mRootNode = new aiNode();
	157	out->mRootNode->mName.Set("RootNode");
	158
	159	// root has ID 0
	160	ConvertNodes(0L, *out->mRootNode);
	161	}
	162
	163
	164	// ------------------------------------------------------------------------------------------------
	165	// collect and assign child nodes
	166	void ConvertNodes(uint64_t id, aiNode& parent, const aiMatrix4x4& parent_transform = aiMatrix4x4())
	167	{
	168	const std::vector<const Connection*>& conns = doc.GetConnectionsByDestinationSequenced(id, "Model");
	169
	170	std::vector<aiNode*> nodes;
	171	nodes.reserve(conns.size());
	172
	173	std::vector<aiNode*> nodes_chain;
	174
	175	try {
	176	BOOST_FOREACH(const Connection* con, conns) {
	177
	178	// ignore object-property links
	179	if(con->PropertyName().length()) {
	180	continue;
	181	}
	182
	183	const Object* const object = con->SourceObject();
	184	if(!object) {
	185	FBXImporter::LogWarn("failed to convert source object for Model link");
	186	continue;
	187	}
	188
	189	const Model* const model = dynamic_cast<const Model*>(object);
	190
	191	if(model) {
	192	nodes_chain.clear();
	193
	194	aiMatrix4x4 new_abs_transform = parent_transform;
	195
	196	// even though there is only a single input node, the design of
	197	// assimp (or rather: the complicated transformation chain that
	198	// is employed by fbx) means that we may need multiple aiNode's
	199	// to represent a fbx node's transformation.
	200	GenerateTransformationNodeChain(*model,nodes_chain);
	201
	202	ai_assert(nodes_chain.size());
	203
	204	const std::string& original_name = FixNodeName(model->Name());
	205
	206	// check if any of the nodes in the chain has the name the fbx node
	207	// is supposed to have. If there is none, add another node to
	208	// preserve the name - people might have scripts etc. that rely
	209	// on specific node names.
	210	aiNode* name_carrier = NULL;
	211	BOOST_FOREACH(aiNode* prenode, nodes_chain) {
	212	if ( !strcmp(prenode->mName.C_Str(), original_name.c_str()) ) {
	213	name_carrier = prenode;
	214	break;
	215	}
	216	}
	217
	218	if(!name_carrier) {
	219	nodes_chain.push_back(new aiNode(original_name));
	220	name_carrier = nodes_chain.back();
	221	}
	222
	223	//setup metadata on newest node
	224	SetupNodeMetadata(model, nodes_chain.back());
	225
	226	// link all nodes in a row
	227	aiNode* last_parent = &parent;
	228	BOOST_FOREACH(aiNode* prenode, nodes_chain) {
	229	ai_assert(prenode);
	230
	231	if(last_parent != &parent) {
	232	last_parent->mNumChildren = 1;
	233	last_parent->mChildren = new aiNode*[1];
	234	last_parent->mChildren[0] = prenode;
	235	}
	236
	237	prenode->mParent = last_parent;
	238	last_parent = prenode;
	239
	240	new_abs_transform *= prenode->mTransformation;
	241	}
	242
	243	// attach geometry
	244	ConvertModel(model, nodes_chain.back(), new_abs_transform);
	245
	246	// attach sub-nodes
	247	ConvertNodes(model->ID(), *nodes_chain.back(), new_abs_transform);
	248
	249	if(doc.Settings().readLights) {
	250	ConvertLights(*model);
	251	}
	252
	253	if(doc.Settings().readCameras) {
	254	ConvertCameras(*model);
	255	}
	256
	257	nodes.push_back(nodes_chain.front());
	258	nodes_chain.clear();
	259	}
	260	}
	261
	262	if(nodes.size()) {
	263	parent.mChildren = new aiNode*[nodes.size()]();
	264	parent.mNumChildren = static_cast<unsigned int>(nodes.size());
	265
	266	std::swap_ranges(nodes.begin(),nodes.end(),parent.mChildren);
	267	}
	268	}
	269	catch(std::exception&) {
	270	Util::delete_fun<aiNode> deleter;
	271	std::for_each(nodes.begin(),nodes.end(),deleter);
	272	std::for_each(nodes_chain.begin(),nodes_chain.end(),deleter);
	273	}
	274	}
	275
	276
	277	// ------------------------------------------------------------------------------------------------
	278	void ConvertLights(const Model& model)
	279	{
	280	const std::vector<const NodeAttribute*>& node_attrs = model.GetAttributes();
	281	BOOST_FOREACH(const NodeAttribute* attr, node_attrs) {
	282	const Light* const light = dynamic_cast<const Light*>(attr);
	283	if(light) {
	284	ConvertLight(model, *light);
	285	}
	286	}
	287	}
	288
	289
	290	// ------------------------------------------------------------------------------------------------
	291	void ConvertCameras(const Model& model)
	292	{
	293	const std::vector<const NodeAttribute*>& node_attrs = model.GetAttributes();
	294	BOOST_FOREACH(const NodeAttribute* attr, node_attrs) {
	295	const Camera* const cam = dynamic_cast<const Camera*>(attr);
	296	if(cam) {
	297	ConvertCamera(model, *cam);
	298	}
	299	}
	300	}
	301
	302
	303	// ------------------------------------------------------------------------------------------------
	304	void ConvertLight(const Model& model, const Light& light)
	305	{
	306	lights.push_back(new aiLight());
	307	aiLight* const out_light = lights.back();
	308
	309	out_light->mName.Set(FixNodeName(model.Name()));
	310
	311	const float intensity = light.Intensity();
	312	const aiVector3D& col = light.Color();
	313
	314	out_light->mColorDiffuse = aiColor3D(col.x,col.y,col.z);
	315	out_light->mColorDiffuse.r *= intensity;
	316	out_light->mColorDiffuse.g *= intensity;
	317	out_light->mColorDiffuse.b *= intensity;
	318
	319	out_light->mColorSpecular = out_light->mColorDiffuse;
	320
	321	switch(light.LightType())
	322	{
	323	case Light::Type_Point:
	324	out_light->mType = aiLightSource_POINT;
	325	break;
	326
	327	case Light::Type_Directional:
	328	out_light->mType = aiLightSource_DIRECTIONAL;
	329	break;
	330
	331	case Light::Type_Spot:
	332	out_light->mType = aiLightSource_SPOT;
	333	out_light->mAngleOuterCone = AI_DEG_TO_RAD(light.OuterAngle());
	334	out_light->mAngleInnerCone = AI_DEG_TO_RAD(light.InnerAngle());
	335	break;
	336
	337	case Light::Type_Area:
	338	FBXImporter::LogWarn("cannot represent area light, set to UNDEFINED");
	339	out_light->mType = aiLightSource_UNDEFINED;
	340	break;
	341
	342	case Light::Type_Volume:
	343	FBXImporter::LogWarn("cannot represent volume light, set to UNDEFINED");
	344	out_light->mType = aiLightSource_UNDEFINED;
	345	break;
	346	default:
	347	ai_assert(false);
	348	}
	349
	350	// XXX: how to best convert the near and far decay ranges?
	351	switch(light.DecayType())
	352	{
	353	case Light::Decay_None:
	354	out_light->mAttenuationConstant = 1.0f;
	355	break;
	356	case Light::Decay_Linear:
	357	out_light->mAttenuationLinear = 1.0f;
	358	break;
	359	case Light::Decay_Quadratic:
	360	out_light->mAttenuationQuadratic = 1.0f;
	361	break;
	362	case Light::Decay_Cubic:
	363	FBXImporter::LogWarn("cannot represent cubic attenuation, set to Quadratic");
	364	out_light->mAttenuationQuadratic = 1.0f;
	365	break;
	366	default:
	367	ai_assert(false);
	368	}
	369	}
	370
	371
	372	// ------------------------------------------------------------------------------------------------
	373	void ConvertCamera(const Model& model, const Camera& cam)
	374	{
	375	cameras.push_back(new aiCamera());
	376	aiCamera* const out_camera = cameras.back();
	377
	378	out_camera->mName.Set(FixNodeName(model.Name()));
	379
	380	out_camera->mAspect = cam.AspectWidth() / cam.AspectHeight();
	381	out_camera->mPosition = cam.Position();
	382	out_camera->mLookAt = cam.InterestPosition() - out_camera->mPosition;
	383
	384	// BUG HERE cam.FieldOfView() returns 1.0f every time. 1.0f is default value.
	385	out_camera->mHorizontalFOV = AI_DEG_TO_RAD(cam.FieldOfView());
	386	}
	387
	388
	389	// ------------------------------------------------------------------------------------------------
	390	// this returns unified names usable within assimp identifiers (i.e. no space characters -
	391	// while these would be allowed, they are a potential trouble spot so better not use them).
	392	const char* NameTransformationComp(TransformationComp comp)
	393	{
	394	switch(comp)
	395	{
	396	case TransformationComp_Translation:
	397	return "Translation";
	398	case TransformationComp_RotationOffset:
	399	return "RotationOffset";
	400	case TransformationComp_RotationPivot:
	401	return "RotationPivot";
	402	case TransformationComp_PreRotation:
	403	return "PreRotation";
	404	case TransformationComp_Rotation:
	405	return "Rotation";
	406	case TransformationComp_PostRotation:
	407	return "PostRotation";
	408	case TransformationComp_RotationPivotInverse:
	409	return "RotationPivotInverse";
	410	case TransformationComp_ScalingOffset:
	411	return "ScalingOffset";
	412	case TransformationComp_ScalingPivot:
	413	return "ScalingPivot";
	414	case TransformationComp_Scaling:
	415	return "Scaling";
	416	case TransformationComp_ScalingPivotInverse:
	417	return "ScalingPivotInverse";
	418	case TransformationComp_GeometricScaling:
	419	return "GeometricScaling";
	420	case TransformationComp_GeometricRotation:
	421	return "GeometricRotation";
	422	case TransformationComp_GeometricTranslation:
	423	return "GeometricTranslation";
	424	case TransformationComp_MAXIMUM: // this is to silence compiler warnings
	425	break;
	426	}
	427
	428	ai_assert(false);
	429	return NULL;
	430	}
	431
	432
	433	// ------------------------------------------------------------------------------------------------
	434	// note: this returns the REAL fbx property names
	435	const char* NameTransformationCompProperty(TransformationComp comp)
	436	{
	437	switch(comp)
	438	{
	439	case TransformationComp_Translation:
	440	return "Lcl Translation";
	441	case TransformationComp_RotationOffset:
	442	return "RotationOffset";
	443	case TransformationComp_RotationPivot:
	444	return "RotationPivot";
	445	case TransformationComp_PreRotation:
	446	return "PreRotation";
	447	case TransformationComp_Rotation:
	448	return "Lcl Rotation";
	449	case TransformationComp_PostRotation:
	450	return "PostRotation";
	451	case TransformationComp_RotationPivotInverse:
	452	return "RotationPivotInverse";
	453	case TransformationComp_ScalingOffset:
	454	return "ScalingOffset";
	455	case TransformationComp_ScalingPivot:
	456	return "ScalingPivot";
	457	case TransformationComp_Scaling:
	458	return "Lcl Scaling";
	459	case TransformationComp_ScalingPivotInverse:
	460	return "ScalingPivotInverse";
	461	case TransformationComp_GeometricScaling:
	462	return "GeometricScaling";
	463	case TransformationComp_GeometricRotation:
	464	return "GeometricRotation";
	465	case TransformationComp_GeometricTranslation:
	466	return "GeometricTranslation";
	467	case TransformationComp_MAXIMUM: // this is to silence compiler warnings
	468	break;
	469	}
	470
	471	ai_assert(false);
	472	return NULL;
	473	}
	474
	475
	476	// ------------------------------------------------------------------------------------------------
	477	aiVector3D TransformationCompDefaultValue(TransformationComp comp)
	478	{
	479	// XXX a neat way to solve the never-ending special cases for scaling
	480	// would be to do everything in log space!
	481	return comp == TransformationComp_Scaling ? aiVector3D(1.f,1.f,1.f) : aiVector3D();
	482	}
	483
	484
	485	// ------------------------------------------------------------------------------------------------
	486	void GetRotationMatrix(Model::RotOrder mode, const aiVector3D& rotation, aiMatrix4x4& out)
	487	{
	488	if(mode == Model::RotOrder_SphericXYZ) {
	489	FBXImporter::LogError("Unsupported RotationMode: SphericXYZ");
	490	out = aiMatrix4x4();
	491	return;
	492	}
	493
	494	const float angle_epsilon = 1e-6f;
	495
	496	out = aiMatrix4x4();
	497
	498	bool is_id[3] = { true, true, true };
	499
	500	aiMatrix4x4 temp[3];
	501	if(fabs(rotation.z) > angle_epsilon) {
	502	aiMatrix4x4::RotationZ(AI_DEG_TO_RAD(rotation.z),temp[2]);
	503	is_id[2] = false;
	504	}
	505	if(fabs(rotation.y) > angle_epsilon) {
	506	aiMatrix4x4::RotationY(AI_DEG_TO_RAD(rotation.y),temp[1]);
	507	is_id[1] = false;
	508	}
	509	if(fabs(rotation.x) > angle_epsilon) {
	510	aiMatrix4x4::RotationX(AI_DEG_TO_RAD(rotation.x),temp[0]);
	511	is_id[0] = false;
	512	}
	513
	514	int order[3] = {-1, -1, -1};
	515
	516	// note: rotation order is inverted since we're left multiplying as is usual in assimp
	517	switch(mode)
	518	{
	519	case Model::RotOrder_EulerXYZ:
	520	order[0] = 2;
	521	order[1] = 1;
	522	order[2] = 0;
	523	break;
	524
	525	case Model::RotOrder_EulerXZY:
	526	order[0] = 1;
	527	order[1] = 2;
	528	order[2] = 0;
	529	break;
	530
	531	case Model::RotOrder_EulerYZX:
	532	order[0] = 0;
	533	order[1] = 2;
	534	order[2] = 1;
	535	break;
	536
	537	case Model::RotOrder_EulerYXZ:
	538	order[0] = 2;
	539	order[1] = 0;
	540	order[2] = 1;
	541	break;
	542
	543	case Model::RotOrder_EulerZXY:
	544	order[0] = 1;
	545	order[1] = 0;
	546	order[2] = 2;
	547	break;
	548
	549	case Model::RotOrder_EulerZYX:
	550	order[0] = 0;
	551	order[1] = 1;
	552	order[2] = 2;
	553	break;
	554
	555	default:
	556	ai_assert(false);
	557	}
	558
	559	ai_assert((order[0] >= 0) && (order[0] <= 2));
	560	ai_assert((order[1] >= 0) && (order[1] <= 2));
	561	ai_assert((order[2] >= 0) && (order[2] <= 2));
	562
	563	if(!is_id[order[0]]) {
	564	out = temp[order[0]];
	565	}
	566
	567	if(!is_id[order[1]]) {
	568	out = out * temp[order[1]];
	569	}
	570
	571	if(!is_id[order[2]]) {
	572	out = out * temp[order[2]];
	573	}
	574	}
	575
	576
	577	// ------------------------------------------------------------------------------------------------
	578	/** checks if a node has more than just scaling, rotation and translation components */
	579	bool NeedsComplexTransformationChain(const Model& model)
	580	{
	581	const PropertyTable& props = model.Props();
	582	bool ok;
	583
	584	const float zero_epsilon = 1e-6f;
	585	for (size_t i = 0; i < TransformationComp_MAXIMUM; ++i) {
	586	const TransformationComp comp = static_cast<TransformationComp>(i);
	587
	588	if( comp == TransformationComp_Rotation \|\| comp == TransformationComp_Scaling \|\| comp == TransformationComp_Translation \|\|
	589	comp == TransformationComp_GeometricScaling \|\| comp == TransformationComp_GeometricRotation \|\| comp == TransformationComp_GeometricTranslation ) {
	590	continue;
	591	}
	592
	593	const aiVector3D& v = PropertyGet<aiVector3D>(props,NameTransformationCompProperty(comp),ok);
	594	if(ok && v.SquareLength() > zero_epsilon) {
	595	return true;
	596	}
	597	}
	598
	599	return false;
	600	}
	601
	602
	603	// ------------------------------------------------------------------------------------------------
	604	// note: name must be a FixNodeName() result
	605	std::string NameTransformationChainNode(const std::string& name, TransformationComp comp)
	606	{
	607	return name + std::string(MAGIC_NODE_TAG) + "_" + NameTransformationComp(comp);
	608	}
	609
	610
	611	// ------------------------------------------------------------------------------------------------
	612	/** note: memory for output_nodes will be managed by the caller */
	613	void GenerateTransformationNodeChain(const Model& model,
	614	std::vector<aiNode*>& output_nodes)
	615	{
	616	const PropertyTable& props = model.Props();
	617	const Model::RotOrder rot = model.RotationOrder();
	618
	619	bool ok;
	620
	621	aiMatrix4x4 chain[TransformationComp_MAXIMUM];
	622	std::fill_n(chain, static_cast<unsigned int>(TransformationComp_MAXIMUM), aiMatrix4x4());
	623
	624	// generate transformation matrices for all the different transformation components
	625	const float zero_epsilon = 1e-6f;
	626	bool is_complex = false;
	627
	628	const aiVector3D& PreRotation = PropertyGet<aiVector3D>(props,"PreRotation",ok);
	629	if(ok && PreRotation.SquareLength() > zero_epsilon) {
	630	is_complex = true;
	631
	632	GetRotationMatrix(rot, PreRotation, chain[TransformationComp_PreRotation]);
	633	}
	634
	635	const aiVector3D& PostRotation = PropertyGet<aiVector3D>(props,"PostRotation",ok);
	636	if(ok && PostRotation.SquareLength() > zero_epsilon) {
	637	is_complex = true;
	638
	639	GetRotationMatrix(rot, PostRotation, chain[TransformationComp_PostRotation]);
	640	}
	641
	642	const aiVector3D& RotationPivot = PropertyGet<aiVector3D>(props,"RotationPivot",ok);
	643	if(ok && RotationPivot.SquareLength() > zero_epsilon) {
	644	is_complex = true;
	645
	646	aiMatrix4x4::Translation(RotationPivot,chain[TransformationComp_RotationPivot]);
	647	aiMatrix4x4::Translation(-RotationPivot,chain[TransformationComp_RotationPivotInverse]);
	648	}
	649
	650	const aiVector3D& RotationOffset = PropertyGet<aiVector3D>(props,"RotationOffset",ok);
	651	if(ok && RotationOffset.SquareLength() > zero_epsilon) {
	652	is_complex = true;
	653
	654	aiMatrix4x4::Translation(RotationOffset,chain[TransformationComp_RotationOffset]);
	655	}
	656
	657	const aiVector3D& ScalingOffset = PropertyGet<aiVector3D>(props,"ScalingOffset",ok);
	658	if(ok && ScalingOffset.SquareLength() > zero_epsilon) {
	659	is_complex = true;
	660
	661	aiMatrix4x4::Translation(ScalingOffset,chain[TransformationComp_ScalingOffset]);
	662	}
	663
	664	const aiVector3D& ScalingPivot = PropertyGet<aiVector3D>(props,"ScalingPivot",ok);
	665	if(ok && ScalingPivot.SquareLength() > zero_epsilon) {
	666	is_complex = true;
	667
	668	aiMatrix4x4::Translation(ScalingPivot,chain[TransformationComp_ScalingPivot]);
	669	aiMatrix4x4::Translation(-ScalingPivot,chain[TransformationComp_ScalingPivotInverse]);
	670	}
	671
	672	const aiVector3D& Translation = PropertyGet<aiVector3D>(props,"Lcl Translation",ok);
	673	if(ok && Translation.SquareLength() > zero_epsilon) {
	674	aiMatrix4x4::Translation(Translation,chain[TransformationComp_Translation]);
	675	}
	676
	677	const aiVector3D& Scaling = PropertyGet<aiVector3D>(props,"Lcl Scaling",ok);
	678	if(ok && fabs(Scaling.SquareLength()-1.0f) > zero_epsilon) {
	679	aiMatrix4x4::Scaling(Scaling,chain[TransformationComp_Scaling]);
	680	}
	681
	682	const aiVector3D& Rotation = PropertyGet<aiVector3D>(props,"Lcl Rotation",ok);
	683	if(ok && Rotation.SquareLength() > zero_epsilon) {
	684	GetRotationMatrix(rot, Rotation, chain[TransformationComp_Rotation]);
	685	}
	686
	687	const aiVector3D& GeometricScaling = PropertyGet<aiVector3D>(props, "GeometricScaling", ok);
	688	if (ok && fabs(GeometricScaling.SquareLength() - 1.0f) > zero_epsilon) {
	689	aiMatrix4x4::Scaling(GeometricScaling, chain[TransformationComp_GeometricScaling]);
	690	}
	691
	692	const aiVector3D& GeometricRotation = PropertyGet<aiVector3D>(props, "GeometricRotation", ok);
	693	if (ok && GeometricRotation.SquareLength() > zero_epsilon) {
	694	GetRotationMatrix(rot, GeometricRotation, chain[TransformationComp_GeometricRotation]);
	695	}
	696
	697	const aiVector3D& GeometricTranslation = PropertyGet<aiVector3D>(props, "GeometricTranslation", ok);
	698	if (ok && GeometricTranslation.SquareLength() > zero_epsilon){
	699	aiMatrix4x4::Translation(GeometricTranslation, chain[TransformationComp_GeometricTranslation]);
	700	}
	701
	702	// is_complex needs to be consistent with NeedsComplexTransformationChain()
	703	// or the interplay between this code and the animation converter would
	704	// not be guaranteed.
	705	ai_assert(NeedsComplexTransformationChain(model) == is_complex);
	706
	707	const std::string& name = FixNodeName(model.Name());
	708
	709	// now, if we have more than just Translation, Scaling and Rotation,
	710	// we need to generate a full node chain to accommodate for assimp's
	711	// lack to express pivots and offsets.
	712	if(is_complex && doc.Settings().preservePivots) {
	713	FBXImporter::LogInfo("generating full transformation chain for node: " + name);
	714
	715	// query the anim_chain_bits dictionary to find out which chain elements
	716	// have associated node animation channels. These can not be dropped
	717	// even if they have identity transform in bind pose.
	718	NodeAnimBitMap::const_iterator it = node_anim_chain_bits.find(name);
	719	const unsigned int anim_chain_bitmask = (it == node_anim_chain_bits.end() ? 0 : (*it).second);
	720
	721	unsigned int bit = 0x1;
	722	for (size_t i = 0; i < TransformationComp_MAXIMUM; ++i, bit <<= 1) {
	723	const TransformationComp comp = static_cast<TransformationComp>(i);
	724
	725	if (chain[i].IsIdentity() && (anim_chain_bitmask & bit) == 0) {
	726	continue;
	727	}
	728
	729	aiNode* nd = new aiNode();
	730	output_nodes.push_back(nd);
	731
	732	nd->mName.Set(NameTransformationChainNode(name, comp));
	733	nd->mTransformation = chain[i];
	734	}
	735
	736	ai_assert(output_nodes.size());
	737	return;
	738	}
	739
	740	// else, we can just multiply the matrices together
	741	aiNode* nd = new aiNode();
	742	output_nodes.push_back(nd);
	743
	744	nd->mName.Set(name);
	745
	746	for (size_t i = 0; i < TransformationComp_MAXIMUM; ++i) {
	747	nd->mTransformation = nd->mTransformation * chain[i];
	748	}
	749	}
	750
	751	// ------------------------------------------------------------------------------------------------
	752
	753	void SetupNodeMetadata(const Model& model, aiNode& nd)
	754	{
	755	const PropertyTable& props = model.Props();
	756	DirectPropertyMap unparsedProperties = props.GetUnparsedProperties();
	757
	758	// create metadata on node
	759	std::size_t numStaticMetaData = 2;
	760	aiMetadata* data = new aiMetadata();
	761	data->mNumProperties = unparsedProperties.size() + numStaticMetaData;
	762	data->mKeys = new aiString[data->mNumProperties]();
	763	data->mValues = new aiMetadataEntry[data->mNumProperties]();
	764	nd.mMetaData = data;
	765	int index = 0;
	766
	767	// find user defined properties (3ds Max)
	768	data->Set(index++, "UserProperties", aiString(PropertyGet<std::string>(props, "UDP3DSMAX", "")));
	769	unparsedProperties.erase("UDP3DSMAX");
	770	// preserve the info that a node was marked as Null node in the original file.
	771	data->Set(index++, "IsNull", model.IsNull() ? true : false);
	772
	773	// add unparsed properties to the node's metadata
	774	BOOST_FOREACH(const DirectPropertyMap::value_type& prop, unparsedProperties) {
	775
	776	// Interpret the property as a concrete type
	777	if (const TypedProperty<bool>* interpreted = prop.second->As<TypedProperty<bool> >())
	778	data->Set(index++, prop.first, interpreted->Value());
	779	else if (const TypedProperty<int>* interpreted = prop.second->As<TypedProperty<int> >())
	780	data->Set(index++, prop.first, interpreted->Value());
	781	else if (const TypedProperty<uint64_t>* interpreted = prop.second->As<TypedProperty<uint64_t> >())
	782	data->Set(index++, prop.first, interpreted->Value());
	783	else if (const TypedProperty<float>* interpreted = prop.second->As<TypedProperty<float> >())
	784	data->Set(index++, prop.first, interpreted->Value());
	785	else if (const TypedProperty<std::string>* interpreted = prop.second->As<TypedProperty<std::string> >())
	786	data->Set(index++, prop.first, aiString(interpreted->Value()));
	787	else if (const TypedProperty<aiVector3D>* interpreted = prop.second->As<TypedProperty<aiVector3D> >())
	788	data->Set(index++, prop.first, interpreted->Value());
	789	else
	790	assert(false);
	791	}
	792	}
	793
	794	// ------------------------------------------------------------------------------------------------
	795	void ConvertModel(const Model& model, aiNode& nd, const aiMatrix4x4& node_global_transform)
	796	{
	797	const std::vector<const Geometry*>& geos = model.GetGeometry();
	798
	799	std::vector<unsigned int> meshes;
	800	meshes.reserve(geos.size());
	801
	802	BOOST_FOREACH(const Geometry* geo, geos) {
	803
	804	const MeshGeometry* const mesh = dynamic_cast<const MeshGeometry*>(geo);
	805	if(mesh) {
	806	const std::vector<unsigned int>& indices = ConvertMesh(*mesh, model, node_global_transform);
	807	std::copy(indices.begin(),indices.end(),std::back_inserter(meshes) );
	808	}
	809	else {
	810	FBXImporter::LogWarn("ignoring unrecognized geometry: " + geo->Name());
	811	}
	812	}
	813
	814	if(meshes.size()) {
	815	nd.mMeshes = new unsigned int[meshes.size()]();
	816	nd.mNumMeshes = static_cast<unsigned int>(meshes.size());
	817
	818	std::swap_ranges(meshes.begin(),meshes.end(),nd.mMeshes);
	819	}
	820	}
	821
	822
	823	// ------------------------------------------------------------------------------------------------
	824	// MeshGeometry -> aiMesh, return mesh index + 1 or 0 if the conversion failed
	825	std::vector<unsigned int> ConvertMesh(const MeshGeometry& mesh,const Model& model,
	826	const aiMatrix4x4& node_global_transform)
	827	{
	828	std::vector<unsigned int> temp;
	829
	830	MeshMap::const_iterator it = meshes_converted.find(&mesh);
	831	if (it != meshes_converted.end()) {
	832	std::copy((it).second.begin(),(it).second.end(),std::back_inserter(temp));
	833	return temp;
	834	}
	835
	836	const std::vector<aiVector3D>& vertices = mesh.GetVertices();
	837	const std::vector<unsigned int>& faces = mesh.GetFaceIndexCounts();
	838	if(vertices.empty() \|\| faces.empty()) {
	839	FBXImporter::LogWarn("ignoring empty geometry: " + mesh.Name());
	840	return temp;
	841	}
	842
	843	// one material per mesh maps easily to aiMesh. Multiple material
	844	// meshes need to be split.
	845	const MatIndexArray& mindices = mesh.GetMaterialIndices();
	846	if (doc.Settings().readMaterials && !mindices.empty()) {
	847	const MatIndexArray::value_type base = mindices[0];
	848	BOOST_FOREACH(MatIndexArray::value_type index, mindices) {
	849	if(index != base) {
	850	return ConvertMeshMultiMaterial(mesh, model, node_global_transform);
	851	}
	852	}
	853	}
	854
	855	// faster codepath, just copy the data
	856	temp.push_back(ConvertMeshSingleMaterial(mesh, model, node_global_transform));
	857	return temp;
	858	}
	859
	860
	861	// ------------------------------------------------------------------------------------------------
	862	aiMesh* SetupEmptyMesh(const MeshGeometry& mesh)
	863	{
	864	aiMesh* const out_mesh = new aiMesh();
	865	meshes.push_back(out_mesh);
	866	meshes_converted[&mesh].push_back(static_cast<unsigned int>(meshes.size()-1));
	867
	868	// set name
	869	std::string name = mesh.Name();
	870	if (name.substr(0,10) == "Geometry::") {
	871	name = name.substr(10);
	872	}
	873
	874	if(name.length()) {
	875	out_mesh->mName.Set(name);
	876	}
	877
	878	return out_mesh;
	879	}
	880
	881
	882	// ------------------------------------------------------------------------------------------------
	883	unsigned int ConvertMeshSingleMaterial(const MeshGeometry& mesh, const Model& model,
	884	const aiMatrix4x4& node_global_transform)
	885	{
	886	const MatIndexArray& mindices = mesh.GetMaterialIndices();
	887	aiMesh* const out_mesh = SetupEmptyMesh(mesh);
	888
	889	const std::vector<aiVector3D>& vertices = mesh.GetVertices();
	890	const std::vector<unsigned int>& faces = mesh.GetFaceIndexCounts();
	891
	892	// copy vertices
	893	out_mesh->mNumVertices = static_cast<unsigned int>(vertices.size());
	894	out_mesh->mVertices = new aiVector3D[vertices.size()];
	895	std::copy(vertices.begin(),vertices.end(),out_mesh->mVertices);
	896
	897	// generate dummy faces
	898	out_mesh->mNumFaces = static_cast<unsigned int>(faces.size());
	899	aiFace* fac = out_mesh->mFaces = new aiFace[faces.size()]();
	900
	901	unsigned int cursor = 0;
	902	BOOST_FOREACH(unsigned int pcount, faces) {
	903	aiFace& f = *fac++;
	904	f.mNumIndices = pcount;
	905	f.mIndices = new unsigned int[pcount];
	906	switch(pcount)
	907	{
	908	case 1:
	909	out_mesh->mPrimitiveTypes \|= aiPrimitiveType_POINT;
	910	break;
	911	case 2:
	912	out_mesh->mPrimitiveTypes \|= aiPrimitiveType_LINE;
	913	break;
	914	case 3:
	915	out_mesh->mPrimitiveTypes \|= aiPrimitiveType_TRIANGLE;
	916	break;
	917	default:
	918	out_mesh->mPrimitiveTypes \|= aiPrimitiveType_POLYGON;
	919	break;
	920	}
	921	for (unsigned int i = 0; i < pcount; ++i) {
	922	f.mIndices[i] = cursor++;
	923	}
	924	}
	925
	926	// copy normals
	927	const std::vector<aiVector3D>& normals = mesh.GetNormals();
	928	if(normals.size()) {
	929	ai_assert(normals.size() == vertices.size());
	930
	931	out_mesh->mNormals = new aiVector3D[vertices.size()];
	932	std::copy(normals.begin(),normals.end(),out_mesh->mNormals);
	933	}
	934
	935	// copy tangents - assimp requires both tangents and bitangents (binormals)
	936	// to be present, or neither of them. Compute binormals from normals
	937	// and tangents if needed.
	938	const std::vector<aiVector3D>& tangents = mesh.GetTangents();
	939	const std::vector<aiVector3D>* binormals = &mesh.GetBinormals();
	940
	941	if(tangents.size()) {
	942	std::vector<aiVector3D> tempBinormals;
	943	if (!binormals->size()) {
	944	if (normals.size()) {
	945	tempBinormals.resize(normals.size());
	946	for (unsigned int i = 0; i < tangents.size(); ++i) {
	947	tempBinormals[i] = normals[i] ^ tangents[i];
	948	}
	949
	950	binormals = &tempBinormals;
	951	}
	952	else {
	953	binormals = NULL;
	954	}
	955	}
	956
	957	if(binormals) {
	958	ai_assert(tangents.size() == vertices.size() && binormals->size() == vertices.size());
	959
	960	out_mesh->mTangents = new aiVector3D[vertices.size()];
	961	std::copy(tangents.begin(),tangents.end(),out_mesh->mTangents);
	962
	963	out_mesh->mBitangents = new aiVector3D[vertices.size()];
	964	std::copy(binormals->begin(),binormals->end(),out_mesh->mBitangents);
	965	}
	966	}
	967
	968	// copy texture coords
	969	for (unsigned int i = 0; i < AI_MAX_NUMBER_OF_TEXTURECOORDS; ++i) {
	970	const std::vector<aiVector2D>& uvs = mesh.GetTextureCoords(i);
	971	if(uvs.empty()) {
	972	break;
	973	}
	974
	975	aiVector3D* out_uv = out_mesh->mTextureCoords[i] = new aiVector3D[vertices.size()];
	976	BOOST_FOREACH(const aiVector2D& v, uvs) {
	977	*out_uv++ = aiVector3D(v.x,v.y,0.0f);
	978	}
	979
	980	out_mesh->mNumUVComponents[i] = 2;
	981	}
	982
	983	// copy vertex colors
	984	for (unsigned int i = 0; i < AI_MAX_NUMBER_OF_COLOR_SETS; ++i) {
	985	const std::vector<aiColor4D>& colors = mesh.GetVertexColors(i);
	986	if(colors.empty()) {
	987	break;
	988	}
	989
	990	out_mesh->mColors[i] = new aiColor4D[vertices.size()];
	991	std::copy(colors.begin(),colors.end(),out_mesh->mColors[i]);
	992	}
	993
	994	if(!doc.Settings().readMaterials \|\| mindices.empty()) {
	995	FBXImporter::LogError("no material assigned to mesh, setting default material");
	996	out_mesh->mMaterialIndex = GetDefaultMaterial();
	997	}
	998	else {
	999	ConvertMaterialForMesh(out_mesh,model,mesh,mindices[0]);
	1000	}
	1001
	1002	if(doc.Settings().readWeights && mesh.DeformerSkin() != NULL) {
	1003	ConvertWeights(out_mesh, model, mesh, node_global_transform, NO_MATERIAL_SEPARATION);
	1004	}
	1005
	1006	return static_cast<unsigned int>(meshes.size() - 1);
	1007	}
	1008
	1009
	1010	// ------------------------------------------------------------------------------------------------
	1011	std::vector<unsigned int> ConvertMeshMultiMaterial(const MeshGeometry& mesh, const Model& model,
	1012	const aiMatrix4x4& node_global_transform)
	1013	{
	1014	const MatIndexArray& mindices = mesh.GetMaterialIndices();
	1015	ai_assert(mindices.size());
	1016
	1017	std::set<MatIndexArray::value_type> had;
	1018	std::vector<unsigned int> indices;
	1019
	1020	BOOST_FOREACH(MatIndexArray::value_type index, mindices) {
	1021	if(had.find(index) == had.end()) {
	1022
	1023	indices.push_back(ConvertMeshMultiMaterial(mesh, model, index, node_global_transform));
	1024	had.insert(index);
	1025	}
	1026	}
	1027
	1028	return indices;
	1029	}
	1030
	1031
	1032	// ------------------------------------------------------------------------------------------------
	1033	unsigned int ConvertMeshMultiMaterial(const MeshGeometry& mesh, const Model& model,
	1034	MatIndexArray::value_type index,
	1035	const aiMatrix4x4& node_global_transform)
	1036	{
	1037	aiMesh* const out_mesh = SetupEmptyMesh(mesh);
	1038
	1039	const MatIndexArray& mindices = mesh.GetMaterialIndices();
	1040	const std::vector<aiVector3D>& vertices = mesh.GetVertices();
	1041	const std::vector<unsigned int>& faces = mesh.GetFaceIndexCounts();
	1042
	1043	const bool process_weights = doc.Settings().readWeights && mesh.DeformerSkin() != NULL;
	1044
	1045	unsigned int count_faces = 0;
	1046	unsigned int count_vertices = 0;
	1047
	1048	// count faces
	1049	std::vector<unsigned int>::const_iterator itf = faces.begin();
	1050	for(MatIndexArray::const_iterator it = mindices.begin(),
	1051	end = mindices.end(); it != end; ++it, ++itf)
	1052	{
	1053	if ((*it) != index) {
	1054	continue;
	1055	}
	1056	++count_faces;
	1057	count_vertices += *itf;
	1058	}
	1059
	1060	ai_assert(count_faces);
	1061	ai_assert(count_vertices);
	1062
	1063	// mapping from output indices to DOM indexing, needed to resolve weights
	1064	std::vector<unsigned int> reverseMapping;
	1065
	1066	if (process_weights) {
	1067	reverseMapping.resize(count_vertices);
	1068	}
	1069
	1070	// allocate output data arrays, but don't fill them yet
	1071	out_mesh->mNumVertices = count_vertices;
	1072	out_mesh->mVertices = new aiVector3D[count_vertices];
	1073
	1074	out_mesh->mNumFaces = count_faces;
	1075	aiFace* fac = out_mesh->mFaces = new aiFace[count_faces]();
	1076
	1077
	1078	// allocate normals
	1079	const std::vector<aiVector3D>& normals = mesh.GetNormals();
	1080	if(normals.size()) {
	1081	ai_assert(normals.size() == vertices.size());
	1082	out_mesh->mNormals = new aiVector3D[vertices.size()];
	1083	}
	1084
	1085	// allocate tangents, binormals.
	1086	const std::vector<aiVector3D>& tangents = mesh.GetTangents();
	1087	const std::vector<aiVector3D>* binormals = &mesh.GetBinormals();
	1088
	1089	if(tangents.size()) {
	1090	std::vector<aiVector3D> tempBinormals;
	1091	if (!binormals->size()) {
	1092	if (normals.size()) {
	1093	// XXX this computes the binormals for the entire mesh, not only
	1094	// the part for which we need them.
	1095	tempBinormals.resize(normals.size());
	1096	for (unsigned int i = 0; i < tangents.size(); ++i) {
	1097	tempBinormals[i] = normals[i] ^ tangents[i];
	1098	}
	1099
	1100	binormals = &tempBinormals;
	1101	}
	1102	else {
	1103	binormals = NULL;
	1104	}
	1105	}
	1106
	1107	if(binormals) {
	1108	ai_assert(tangents.size() == vertices.size() && binormals->size() == vertices.size());
	1109
	1110	out_mesh->mTangents = new aiVector3D[vertices.size()];
	1111	out_mesh->mBitangents = new aiVector3D[vertices.size()];
	1112	}
	1113	}
	1114
	1115	// allocate texture coords
	1116	unsigned int num_uvs = 0;
	1117	for (unsigned int i = 0; i < AI_MAX_NUMBER_OF_TEXTURECOORDS; ++i, ++num_uvs) {
	1118	const std::vector<aiVector2D>& uvs = mesh.GetTextureCoords(i);
	1119	if(uvs.empty()) {
	1120	break;
	1121	}
	1122
	1123	out_mesh->mTextureCoords[i] = new aiVector3D[vertices.size()];
	1124	out_mesh->mNumUVComponents[i] = 2;
	1125	}
	1126
	1127	// allocate vertex colors
	1128	unsigned int num_vcs = 0;
	1129	for (unsigned int i = 0; i < AI_MAX_NUMBER_OF_COLOR_SETS; ++i, ++num_vcs) {
	1130	const std::vector<aiColor4D>& colors = mesh.GetVertexColors(i);
	1131	if(colors.empty()) {
	1132	break;
	1133	}
	1134
	1135	out_mesh->mColors[i] = new aiColor4D[vertices.size()];
	1136	}
	1137
	1138	unsigned int cursor = 0, in_cursor = 0;
	1139
	1140	itf = faces.begin();
	1141	for(MatIndexArray::const_iterator it = mindices.begin(),
	1142	end = mindices.end(); it != end; ++it, ++itf)
	1143	{
	1144	const unsigned int pcount = *itf;
	1145	if ((*it) != index) {
	1146	in_cursor += pcount;
	1147	continue;
	1148	}
	1149
	1150	aiFace& f = *fac++;
	1151
	1152	f.mNumIndices = pcount;
	1153	f.mIndices = new unsigned int[pcount];
	1154	switch(pcount)
	1155	{
	1156	case 1:
	1157	out_mesh->mPrimitiveTypes \|= aiPrimitiveType_POINT;
	1158	break;
	1159	case 2:
	1160	out_mesh->mPrimitiveTypes \|= aiPrimitiveType_LINE;
	1161	break;
	1162	case 3:
	1163	out_mesh->mPrimitiveTypes \|= aiPrimitiveType_TRIANGLE;
	1164	break;
	1165	default:
	1166	out_mesh->mPrimitiveTypes \|= aiPrimitiveType_POLYGON;
	1167	break;
	1168	}
	1169	for (unsigned int i = 0; i < pcount; ++i, ++cursor, ++in_cursor) {
	1170	f.mIndices[i] = cursor;
	1171
	1172	if(reverseMapping.size()) {
	1173	reverseMapping[cursor] = in_cursor;
	1174	}
	1175
	1176	out_mesh->mVertices[cursor] = vertices[in_cursor];
	1177
	1178	if(out_mesh->mNormals) {
	1179	out_mesh->mNormals[cursor] = normals[in_cursor];
	1180	}
	1181
	1182	if(out_mesh->mTangents) {
	1183	out_mesh->mTangents[cursor] = tangents[in_cursor];
	1184	out_mesh->mBitangents[cursor] = (*binormals)[in_cursor];
	1185	}
	1186
	1187	for (unsigned int i = 0; i < num_uvs; ++i) {
	1188	const std::vector<aiVector2D>& uvs = mesh.GetTextureCoords(i);
	1189	out_mesh->mTextureCoords[i][cursor] = aiVector3D(uvs[in_cursor].x,uvs[in_cursor].y, 0.0f);
	1190	}
	1191
	1192	for (unsigned int i = 0; i < num_vcs; ++i) {
	1193	const std::vector<aiColor4D>& cols = mesh.GetVertexColors(i);
	1194	out_mesh->mColors[i][cursor] = cols[in_cursor];
	1195	}
	1196	}
	1197	}
	1198
	1199	ConvertMaterialForMesh(out_mesh,model,mesh,index);
	1200
	1201	if(process_weights) {
	1202	ConvertWeights(out_mesh, model, mesh, node_global_transform, index, &reverseMapping);
	1203	}
	1204
	1205	return static_cast<unsigned int>(meshes.size() - 1);
	1206	}
	1207
	1208	static const unsigned int NO_MATERIAL_SEPARATION = /* std::numeric_limits<unsigned int>::max() */
	1209	static_cast<unsigned int>(-1);
	1210
	1211
	1212	// ------------------------------------------------------------------------------------------------
	1213	/** - if materialIndex == NO_MATERIAL_SEPARATION, materials are not taken into
	1214	* account when determining which weights to include.
	1215	* - outputVertStartIndices is only used when a material index is specified, it gives for
	1216	* each output vertex the DOM index it maps to. */
	1217	void ConvertWeights(aiMesh* out, const Model& model, const MeshGeometry& geo,
	1218	const aiMatrix4x4& node_global_transform = aiMatrix4x4(),
	1219	unsigned int materialIndex = NO_MATERIAL_SEPARATION,
	1220	std::vector<unsigned int>* outputVertStartIndices = NULL)
	1221	{
	1222	ai_assert(geo.DeformerSkin());
	1223
	1224	std::vector<size_t> out_indices;
	1225	std::vector<size_t> index_out_indices;
	1226	std::vector<size_t> count_out_indices;
	1227
	1228	const Skin& sk = *geo.DeformerSkin();
	1229
	1230	std::vector<aiBone*> bones;
	1231	bones.reserve(sk.Clusters().size());
	1232
	1233	const bool no_mat_check = materialIndex == NO_MATERIAL_SEPARATION;
	1234	ai_assert(no_mat_check \|\| outputVertStartIndices);
	1235
	1236	try {
	1237
	1238	BOOST_FOREACH(const Cluster* cluster, sk.Clusters()) {
	1239	ai_assert(cluster);
	1240
	1241	const WeightIndexArray& indices = cluster->GetIndices();
	1242
	1243	if(indices.empty()) {
	1244	continue;
	1245	}
	1246
	1247	const MatIndexArray& mats = geo.GetMaterialIndices();
	1248
	1249	bool ok = false;
	1250
	1251	const size_t no_index_sentinel = std::numeric_limits<size_t>::max();
	1252
	1253	count_out_indices.clear();
	1254	index_out_indices.clear();
	1255	out_indices.clear();
	1256
	1257	// now check if any of these weights is contained in the output mesh,
	1258	// taking notes so we don't need to do it twice.
	1259	BOOST_FOREACH(WeightIndexArray::value_type index, indices) {
	1260
	1261	unsigned int count;
	1262	const unsigned int* const out_idx = geo.ToOutputVertexIndex(index, count);
	1263
	1264	index_out_indices.push_back(no_index_sentinel);
	1265	count_out_indices.push_back(0);
	1266
	1267	for(unsigned int i = 0; i < count; ++i) {
	1268	if (no_mat_check \|\| static_cast<size_t>(mats[geo.FaceForVertexIndex(out_idx[i])]) == materialIndex) {
	1269
	1270	if (index_out_indices.back() == no_index_sentinel) {
	1271	index_out_indices.back() = out_indices.size();
	1272
	1273	}
	1274
	1275	if (no_mat_check) {
	1276	out_indices.push_back(out_idx[i]);
	1277	}
	1278	else {
	1279	// this extra lookup is in O(logn), so the entire algorithm becomes O(nlogn)
	1280	const std::vector<unsigned int>::iterator it = std::lower_bound(
	1281	outputVertStartIndices->begin(),
	1282	outputVertStartIndices->end(),
	1283	out_idx[i]
	1284	);
	1285
	1286	out_indices.push_back(std::distance(outputVertStartIndices->begin(), it));
	1287	}
	1288
	1289	++count_out_indices.back();
	1290	ok = true;
	1291	}
	1292	}
	1293	}
	1294
	1295	// if we found at least one, generate the output bones
	1296	// XXX this could be heavily simplified by collecting the bone
	1297	// data in a single step.
	1298	if (ok) {
	1299	ConvertCluster(bones, model, *cluster, out_indices, index_out_indices,
	1300	count_out_indices, node_global_transform);
	1301	}
	1302	}
	1303	}
	1304	catch (std::exception&) {
	1305	std::for_each(bones.begin(),bones.end(),Util::delete_fun<aiBone>());
	1306	throw;
	1307	}
	1308
	1309	if(bones.empty()) {
	1310	return;
	1311	}
	1312
	1313	out->mBones = new aiBone*[bones.size()]();
	1314	out->mNumBones = static_cast<unsigned int>(bones.size());
	1315
	1316	std::swap_ranges(bones.begin(),bones.end(),out->mBones);
	1317	}
	1318
	1319
	1320
	1321	// ------------------------------------------------------------------------------------------------
	1322	void ConvertCluster(std::vector<aiBone*>& bones, const Model& model, const Cluster& cl,
	1323	std::vector<size_t>& out_indices,
	1324	std::vector<size_t>& index_out_indices,
	1325	std::vector<size_t>& count_out_indices,
	1326	const aiMatrix4x4& node_global_transform)
	1327	{
	1328
	1329	aiBone* const bone = new aiBone();
	1330	bones.push_back(bone);
	1331
	1332	bone->mName = FixNodeName(cl.TargetNode()->Name());
	1333
	1334	bone->mOffsetMatrix = cl.TransformLink();
	1335	bone->mOffsetMatrix.Inverse();
	1336
	1337	bone->mOffsetMatrix = bone->mOffsetMatrix * node_global_transform;
	1338
	1339	bone->mNumWeights = static_cast<unsigned int>(out_indices.size());
	1340	aiVertexWeight* cursor = bone->mWeights = new aiVertexWeight[out_indices.size()];
	1341
	1342	const size_t no_index_sentinel = std::numeric_limits<size_t>::max();
	1343	const WeightArray& weights = cl.GetWeights();
	1344
	1345	const size_t c = index_out_indices.size();
	1346	for (size_t i = 0; i < c; ++i) {
	1347	const size_t index_index = index_out_indices[i];
	1348
	1349	if (index_index == no_index_sentinel) {
	1350	continue;
	1351	}
	1352
	1353	const size_t cc = count_out_indices[i];
	1354	for (size_t j = 0; j < cc; ++j) {
	1355	aiVertexWeight& out_weight = *cursor++;
	1356
	1357	out_weight.mVertexId = static_cast<unsigned int>(out_indices[index_index + j]);
	1358	out_weight.mWeight = weights[i];
	1359	}
	1360	}
	1361	}
	1362
	1363
	1364	// ------------------------------------------------------------------------------------------------
	1365	void ConvertMaterialForMesh(aiMesh* out, const Model& model, const MeshGeometry& geo,
	1366	MatIndexArray::value_type materialIndex)
	1367	{
	1368	// locate source materials for this mesh
	1369	const std::vector<const Material*>& mats = model.GetMaterials();
	1370	if (static_cast<unsigned int>(materialIndex) >= mats.size() \|\| materialIndex < 0) {
	1371	FBXImporter::LogError("material index out of bounds, setting default material");
	1372	out->mMaterialIndex = GetDefaultMaterial();
	1373	return;
	1374	}
	1375
	1376	const Material* const mat = mats[materialIndex];
	1377	MaterialMap::const_iterator it = materials_converted.find(mat);
	1378	if (it != materials_converted.end()) {
	1379	out->mMaterialIndex = (*it).second;
	1380	return;
	1381	}
	1382
	1383	out->mMaterialIndex = ConvertMaterial(*mat, &geo);
	1384	materials_converted[mat] = out->mMaterialIndex;
	1385	}
	1386
	1387
	1388	// ------------------------------------------------------------------------------------------------
	1389	unsigned int GetDefaultMaterial()
	1390	{
	1391	if (defaultMaterialIndex) {
	1392	return defaultMaterialIndex - 1;
	1393	}
	1394
	1395	aiMaterial* out_mat = new aiMaterial();
	1396	materials.push_back(out_mat);
	1397
	1398	const aiColor3D diffuse = aiColor3D(0.8f,0.8f,0.8f);
	1399	out_mat->AddProperty(&diffuse,1,AI_MATKEY_COLOR_DIFFUSE);
	1400
	1401	aiString s;
	1402	s.Set(AI_DEFAULT_MATERIAL_NAME);
	1403
	1404	out_mat->AddProperty(&s,AI_MATKEY_NAME);
	1405
	1406	defaultMaterialIndex = static_cast<unsigned int>(materials.size());
	1407	return defaultMaterialIndex - 1;
	1408	}
	1409
	1410
	1411	// ------------------------------------------------------------------------------------------------
	1412	// Material -> aiMaterial
	1413	unsigned int ConvertMaterial(const Material& material, const MeshGeometry* const mesh)
	1414	{
	1415	const PropertyTable& props = material.Props();
	1416
	1417	// generate empty output material
	1418	aiMaterial* out_mat = new aiMaterial();
	1419	materials_converted[&material] = static_cast<unsigned int>(materials.size());
	1420
	1421	materials.push_back(out_mat);
	1422
	1423	aiString str;
	1424
	1425	// stip Material:: prefix
	1426	std::string name = material.Name();
	1427	if(name.substr(0,10) == "Material::") {
	1428	name = name.substr(10);
	1429	}
	1430
	1431	// set material name if not empty - this could happen
	1432	// and there should be no key for it in this case.
	1433	if(name.length()) {
	1434	str.Set(name);
	1435	out_mat->AddProperty(&str,AI_MATKEY_NAME);
	1436	}
	1437
	1438	// shading stuff and colors
	1439	SetShadingPropertiesCommon(out_mat,props);
	1440
	1441	// texture assignments
	1442	SetTextureProperties(out_mat,material.Textures(), mesh);
	1443	SetTextureProperties(out_mat,material.LayeredTextures(), mesh);
	1444
	1445	return static_cast<unsigned int>(materials.size() - 1);
	1446	}
	1447
	1448
	1449	// ------------------------------------------------------------------------------------------------
	1450	void TrySetTextureProperties(aiMaterial* out_mat, const TextureMap& textures,
	1451	const std::string& propName,
	1452	aiTextureType target, const MeshGeometry* const mesh)
	1453	{
	1454	TextureMap::const_iterator it = textures.find(propName);
	1455	if(it == textures.end()) {
	1456	return;
	1457	}
	1458
	1459	const Texture* const tex = (*it).second;
	1460	if(tex !=0 )
	1461	{
	1462	aiString path;
	1463	path.Set(tex->RelativeFilename());
	1464
	1465	out_mat->AddProperty(&path,_AI_MATKEY_TEXTURE_BASE,target,0);
	1466
	1467	aiUVTransform uvTrafo;
	1468	// XXX handle all kinds of UV transformations
	1469	uvTrafo.mScaling = tex->UVScaling();
	1470	uvTrafo.mTranslation = tex->UVTranslation();
	1471	out_mat->AddProperty(&uvTrafo,1,_AI_MATKEY_UVTRANSFORM_BASE,target,0);
	1472
	1473	const PropertyTable& props = tex->Props();
	1474
	1475	int uvIndex = 0;
	1476
	1477	bool ok;
	1478	const std::string& uvSet = PropertyGet<std::string>(props,"UVSet",ok);
	1479	if(ok) {
	1480	// "default" is the name which usually appears in the FbxFileTexture template
	1481	if(uvSet != "default" && uvSet.length()) {
	1482	// this is a bit awkward - we need to find a mesh that uses this
	1483	// material and scan its UV channels for the given UV name because
	1484	// assimp references UV channels by index, not by name.
	1485
	1486	// XXX: the case that UV channels may appear in different orders
	1487	// in meshes is unhandled. A possible solution would be to sort
	1488	// the UV channels alphabetically, but this would have the side
	1489	// effect that the primary (first) UV channel would sometimes
	1490	// be moved, causing trouble when users read only the first
	1491	// UV channel and ignore UV channel assignments altogether.
	1492
	1493	const unsigned int matIndex = static_cast<unsigned int>(std::distance(materials.begin(),
	1494	std::find(materials.begin(),materials.end(),out_mat)
	1495	));
	1496
	1497
	1498	uvIndex = -1;
	1499	if (!mesh)
	1500	{
	1501	BOOST_FOREACH(const MeshMap::value_type& v,meshes_converted) {
	1502	const MeshGeometry* const mesh = dynamic_cast<const MeshGeometry*> (v.first);
	1503	if(!mesh) {
	1504	continue;
	1505	}
	1506
	1507	const MatIndexArray& mats = mesh->GetMaterialIndices();
	1508	if(std::find(mats.begin(),mats.end(),matIndex) == mats.end()) {
	1509	continue;
	1510	}
	1511
	1512	int index = -1;
	1513	for (unsigned int i = 0; i < AI_MAX_NUMBER_OF_TEXTURECOORDS; ++i) {
	1514	if(mesh->GetTextureCoords(i).empty()) {
	1515	break;
	1516	}
	1517	const std::string& name = mesh->GetTextureCoordChannelName(i);
	1518	if(name == uvSet) {
	1519	index = static_cast<int>(i);
	1520	break;
	1521	}
	1522	}
	1523	if(index == -1) {
	1524	FBXImporter::LogWarn("did not find UV channel named " + uvSet + " in a mesh using this material");
	1525	continue;
	1526	}
	1527
	1528	if(uvIndex == -1) {
	1529	uvIndex = index;
	1530	}
	1531	else {
	1532	FBXImporter::LogWarn("the UV channel named " + uvSet +
	1533	" appears at different positions in meshes, results will be wrong");
	1534	}
	1535	}
	1536	}
	1537	else
	1538	{
	1539	int index = -1;
	1540	for (unsigned int i = 0; i < AI_MAX_NUMBER_OF_TEXTURECOORDS; ++i) {
	1541	if(mesh->GetTextureCoords(i).empty()) {
	1542	break;
	1543	}
	1544	const std::string& name = mesh->GetTextureCoordChannelName(i);
	1545	if(name == uvSet) {
	1546	index = static_cast<int>(i);
	1547	break;
	1548	}
	1549	}
	1550	if(index == -1) {
	1551	FBXImporter::LogWarn("did not find UV channel named " + uvSet + " in a mesh using this material");
	1552	}
	1553
	1554	if(uvIndex == -1) {
	1555	uvIndex = index;
	1556	}
	1557	}
	1558
	1559	if(uvIndex == -1) {
	1560	FBXImporter::LogWarn("failed to resolve UV channel " + uvSet + ", using first UV channel");
	1561	uvIndex = 0;
	1562	}
	1563	}
	1564	}
	1565
	1566	out_mat->AddProperty(&uvIndex,1,_AI_MATKEY_UVWSRC_BASE,target,0);
	1567	}
	1568	}
	1569
	1570	// ------------------------------------------------------------------------------------------------
	1571	void TrySetTextureProperties(aiMaterial* out_mat, const LayeredTextureMap& layeredTextures,
	1572	const std::string& propName,
	1573	aiTextureType target, const MeshGeometry* const mesh)
	1574	{
	1575	LayeredTextureMap::const_iterator it = layeredTextures.find(propName);
	1576	if(it == layeredTextures.end()) {
	1577	return;
	1578	}
	1579
	1580	const Texture* const tex = (*it).second->getTexture();
	1581
	1582	aiString path;
	1583	path.Set(tex->RelativeFilename());
	1584
	1585	out_mat->AddProperty(&path,_AI_MATKEY_TEXTURE_BASE,target,0);
	1586
	1587	aiUVTransform uvTrafo;
	1588	// XXX handle all kinds of UV transformations
	1589	uvTrafo.mScaling = tex->UVScaling();
	1590	uvTrafo.mTranslation = tex->UVTranslation();
	1591	out_mat->AddProperty(&uvTrafo,1,_AI_MATKEY_UVTRANSFORM_BASE,target,0);
	1592
	1593	const PropertyTable& props = tex->Props();
	1594
	1595	int uvIndex = 0;
	1596
	1597	bool ok;
	1598	const std::string& uvSet = PropertyGet<std::string>(props,"UVSet",ok);
	1599	if(ok) {
	1600	// "default" is the name which usually appears in the FbxFileTexture template
	1601	if(uvSet != "default" && uvSet.length()) {
	1602	// this is a bit awkward - we need to find a mesh that uses this
	1603	// material and scan its UV channels for the given UV name because
	1604	// assimp references UV channels by index, not by name.
	1605
	1606	// XXX: the case that UV channels may appear in different orders
	1607	// in meshes is unhandled. A possible solution would be to sort
	1608	// the UV channels alphabetically, but this would have the side
	1609	// effect that the primary (first) UV channel would sometimes
	1610	// be moved, causing trouble when users read only the first
	1611	// UV channel and ignore UV channel assignments altogether.
	1612
	1613	const unsigned int matIndex = static_cast<unsigned int>(std::distance(materials.begin(),
	1614	std::find(materials.begin(),materials.end(),out_mat)
	1615	));
	1616
	1617	uvIndex = -1;
	1618	if (!mesh)
	1619	{
	1620	BOOST_FOREACH(const MeshMap::value_type& v,meshes_converted) {
	1621	const MeshGeometry* const mesh = dynamic_cast<const MeshGeometry*> (v.first);
	1622	if(!mesh) {
	1623	continue;
	1624	}
	1625
	1626	const MatIndexArray& mats = mesh->GetMaterialIndices();
	1627	if(std::find(mats.begin(),mats.end(),matIndex) == mats.end()) {
	1628	continue;
	1629	}
	1630
	1631	int index = -1;
	1632	for (unsigned int i = 0; i < AI_MAX_NUMBER_OF_TEXTURECOORDS; ++i) {
	1633	if(mesh->GetTextureCoords(i).empty()) {
	1634	break;
	1635	}
	1636	const std::string& name = mesh->GetTextureCoordChannelName(i);
	1637	if(name == uvSet) {
	1638	index = static_cast<int>(i);
	1639	break;
	1640	}
	1641	}
	1642	if(index == -1) {
	1643	FBXImporter::LogWarn("did not find UV channel named " + uvSet + " in a mesh using this material");
	1644	continue;
	1645	}
	1646
	1647	if(uvIndex == -1) {
	1648	uvIndex = index;
	1649	}
	1650	else {
	1651	FBXImporter::LogWarn("the UV channel named " + uvSet +
	1652	" appears at different positions in meshes, results will be wrong");
	1653	}
	1654	}
	1655	}
	1656	else
	1657	{
	1658	int index = -1;
	1659	for (unsigned int i = 0; i < AI_MAX_NUMBER_OF_TEXTURECOORDS; ++i) {
	1660	if(mesh->GetTextureCoords(i).empty()) {
	1661	break;
	1662	}
	1663	const std::string& name = mesh->GetTextureCoordChannelName(i);
	1664	if(name == uvSet) {
	1665	index = static_cast<int>(i);
	1666	break;
	1667	}
	1668	}
	1669	if(index == -1) {
	1670	FBXImporter::LogWarn("did not find UV channel named " + uvSet + " in a mesh using this material");
	1671	}
	1672
	1673	if(uvIndex == -1) {
	1674	uvIndex = index;
	1675	}
	1676	}
	1677
	1678	if(uvIndex == -1) {
	1679	FBXImporter::LogWarn("failed to resolve UV channel " + uvSet + ", using first UV channel");
	1680	uvIndex = 0;
	1681	}
	1682	}
	1683	}
	1684
	1685	out_mat->AddProperty(&uvIndex,1,_AI_MATKEY_UVWSRC_BASE,target,0);
	1686	}
	1687
	1688	// ------------------------------------------------------------------------------------------------
	1689	void SetTextureProperties(aiMaterial* out_mat, const TextureMap& textures, const MeshGeometry* const mesh)
	1690	{
	1691	TrySetTextureProperties(out_mat, textures, "DiffuseColor", aiTextureType_DIFFUSE, mesh);
	1692	TrySetTextureProperties(out_mat, textures, "AmbientColor", aiTextureType_AMBIENT, mesh);
	1693	TrySetTextureProperties(out_mat, textures, "EmissiveColor", aiTextureType_EMISSIVE, mesh);
	1694	TrySetTextureProperties(out_mat, textures, "SpecularColor", aiTextureType_SPECULAR, mesh);
	1695	TrySetTextureProperties(out_mat, textures, "TransparentColor", aiTextureType_OPACITY, mesh);
	1696	TrySetTextureProperties(out_mat, textures, "ReflectionColor", aiTextureType_REFLECTION, mesh);
	1697	TrySetTextureProperties(out_mat, textures, "DisplacementColor", aiTextureType_DISPLACEMENT, mesh);
	1698	TrySetTextureProperties(out_mat, textures, "NormalMap", aiTextureType_NORMALS, mesh);
	1699	TrySetTextureProperties(out_mat, textures, "Bump", aiTextureType_HEIGHT, mesh);
	1700	TrySetTextureProperties(out_mat, textures, "ShininessExponent", aiTextureType_SHININESS, mesh);
	1701	}
	1702
	1703	// ------------------------------------------------------------------------------------------------
	1704	void SetTextureProperties(aiMaterial* out_mat, const LayeredTextureMap& layeredTextures, const MeshGeometry* const mesh)
	1705	{
	1706	TrySetTextureProperties(out_mat, layeredTextures, "DiffuseColor", aiTextureType_DIFFUSE, mesh);
	1707	TrySetTextureProperties(out_mat, layeredTextures, "AmbientColor", aiTextureType_AMBIENT, mesh);
	1708	TrySetTextureProperties(out_mat, layeredTextures, "EmissiveColor", aiTextureType_EMISSIVE, mesh);
	1709	TrySetTextureProperties(out_mat, layeredTextures, "SpecularColor", aiTextureType_SPECULAR, mesh);
	1710	TrySetTextureProperties(out_mat, layeredTextures, "TransparentColor", aiTextureType_OPACITY, mesh);
	1711	TrySetTextureProperties(out_mat, layeredTextures, "ReflectionColor", aiTextureType_REFLECTION, mesh);
	1712	TrySetTextureProperties(out_mat, layeredTextures, "DisplacementColor", aiTextureType_DISPLACEMENT, mesh);
	1713	TrySetTextureProperties(out_mat, layeredTextures, "NormalMap", aiTextureType_NORMALS, mesh);
	1714	TrySetTextureProperties(out_mat, layeredTextures, "Bump", aiTextureType_HEIGHT, mesh);
	1715	TrySetTextureProperties(out_mat, layeredTextures, "ShininessExponent", aiTextureType_SHININESS, mesh);
	1716	}
	1717
	1718
	1719	// ------------------------------------------------------------------------------------------------
	1720	aiColor3D GetColorPropertyFromMaterial(const PropertyTable& props, const std::string& baseName,
	1721	bool& result)
	1722	{
	1723	result = true;
	1724
	1725	bool ok;
	1726	const aiVector3D& Diffuse = PropertyGet<aiVector3D>(props,baseName,ok);
	1727	if(ok) {
	1728	return aiColor3D(Diffuse.x,Diffuse.y,Diffuse.z);
	1729	}
	1730	else {
	1731	aiVector3D DiffuseColor = PropertyGet<aiVector3D>(props,baseName + "Color",ok);
	1732	if(ok) {
	1733	float DiffuseFactor = PropertyGet<float>(props,baseName + "Factor",ok);
	1734	if(ok) {
	1735	DiffuseColor *= DiffuseFactor;
	1736	}
	1737
	1738	return aiColor3D(DiffuseColor.x,DiffuseColor.y,DiffuseColor.z);
	1739	}
	1740	}
	1741	result = false;
	1742	return aiColor3D(0.0f,0.0f,0.0f);
	1743	}
	1744
	1745
	1746	// ------------------------------------------------------------------------------------------------
	1747	void SetShadingPropertiesCommon(aiMaterial* out_mat, const PropertyTable& props)
	1748	{
	1749	// set shading properties. There are various, redundant ways in which FBX materials
	1750	// specify their shading settings (depending on shading models, prop
	1751	// template etc.). No idea which one is right in a particular context.
	1752	// Just try to make sense of it - there's no spec to verify this against,
	1753	// so why should we.
	1754	bool ok;
	1755	const aiColor3D& Diffuse = GetColorPropertyFromMaterial(props,"Diffuse",ok);
	1756	if(ok) {
	1757	out_mat->AddProperty(&Diffuse,1,AI_MATKEY_COLOR_DIFFUSE);
	1758	}
	1759
	1760	const aiColor3D& Emissive = GetColorPropertyFromMaterial(props,"Emissive",ok);
	1761	if(ok) {
	1762	out_mat->AddProperty(&Emissive,1,AI_MATKEY_COLOR_EMISSIVE);
	1763	}
	1764
	1765	const aiColor3D& Ambient = GetColorPropertyFromMaterial(props,"Ambient",ok);
	1766	if(ok) {
	1767	out_mat->AddProperty(&Ambient,1,AI_MATKEY_COLOR_AMBIENT);
	1768	}
	1769
	1770	const aiColor3D& Specular = GetColorPropertyFromMaterial(props,"Specular",ok);
	1771	if(ok) {
	1772	out_mat->AddProperty(&Specular,1,AI_MATKEY_COLOR_SPECULAR);
	1773	}
	1774
	1775	const float Opacity = PropertyGet<float>(props,"Opacity",ok);
	1776	if(ok) {
	1777	out_mat->AddProperty(&Opacity,1,AI_MATKEY_OPACITY);
	1778	}
	1779
	1780	const float Reflectivity = PropertyGet<float>(props,"Reflectivity",ok);
	1781	if(ok) {
	1782	out_mat->AddProperty(&Reflectivity,1,AI_MATKEY_REFLECTIVITY);
	1783	}
	1784
	1785	const float Shininess = PropertyGet<float>(props,"Shininess",ok);
	1786	if(ok) {
	1787	out_mat->AddProperty(&Shininess,1,AI_MATKEY_SHININESS_STRENGTH);
	1788	}
	1789
	1790	const float ShininessExponent = PropertyGet<float>(props,"ShininessExponent",ok);
	1791	if(ok) {
	1792	out_mat->AddProperty(&ShininessExponent,1,AI_MATKEY_SHININESS);
	1793	}
	1794	}
	1795
	1796
	1797	// ------------------------------------------------------------------------------------------------
	1798	// get the number of fps for a FrameRate enumerated value
	1799	static double FrameRateToDouble(FileGlobalSettings::FrameRate fp, double customFPSVal = -1.0)
	1800	{
	1801	switch(fp) {
	1802	case FileGlobalSettings::FrameRate_DEFAULT:
	1803	return 1.0;
	1804
	1805	case FileGlobalSettings::FrameRate_120:
	1806	return 120.0;
	1807
	1808	case FileGlobalSettings::FrameRate_100:
	1809	return 100.0;
	1810
	1811	case FileGlobalSettings::FrameRate_60:
	1812	return 60.0;
	1813
	1814	case FileGlobalSettings::FrameRate_50:
	1815	return 50.0;
	1816
	1817	case FileGlobalSettings::FrameRate_48:
	1818	return 48.0;
	1819
	1820	case FileGlobalSettings::FrameRate_30:
	1821	case FileGlobalSettings::FrameRate_30_DROP:
	1822	return 30.0;
	1823
	1824	case FileGlobalSettings::FrameRate_NTSC_DROP_FRAME:
	1825	case FileGlobalSettings::FrameRate_NTSC_FULL_FRAME:
	1826	return 29.9700262;
	1827
	1828	case FileGlobalSettings::FrameRate_PAL:
	1829	return 25.0;
	1830
	1831	case FileGlobalSettings::FrameRate_CINEMA:
	1832	return 24.0;
	1833
	1834	case FileGlobalSettings::FrameRate_1000:
	1835	return 1000.0;
	1836
	1837	case FileGlobalSettings::FrameRate_CINEMA_ND:
	1838	return 23.976;
	1839
	1840	case FileGlobalSettings::FrameRate_CUSTOM:
	1841	return customFPSVal;
	1842
	1843	case FileGlobalSettings::FrameRate_MAX: // this is to silence compiler warnings
	1844	break;
	1845	}
	1846
	1847	ai_assert(false);
	1848	return -1.0f;
	1849	}
	1850
	1851
	1852	// ------------------------------------------------------------------------------------------------
	1853	// convert animation data to aiAnimation et al
	1854	void ConvertAnimations()
	1855	{
	1856	// first of all determine framerate
	1857	const FileGlobalSettings::FrameRate fps = doc.GlobalSettings().TimeMode();
	1858	const float custom = doc.GlobalSettings().CustomFrameRate();
	1859	anim_fps = FrameRateToDouble(fps, custom);
	1860
	1861	const std::vector<const AnimationStack*>& animations = doc.AnimationStacks();
	1862	BOOST_FOREACH(const AnimationStack* stack, animations) {
	1863	ConvertAnimationStack(*stack);
	1864	}
	1865	}
	1866
	1867
	1868	// ------------------------------------------------------------------------------------------------
	1869	// rename a node already partially converted. fixed_name is a string previously returned by
	1870	// FixNodeName, new_name specifies the string FixNodeName should return on all further invocations
	1871	// which would previously have returned the old value.
	1872	//
	1873	// this also updates names in node animations, cameras and light sources and is thus slow.
	1874	//
	1875	// NOTE: the caller is responsible for ensuring that the new name is unique and does
	1876	// not collide with any other identifiers. The best way to ensure this is to only
	1877	// append to the old name, which is guaranteed to match these requirements.
	1878	void RenameNode(const std::string& fixed_name, const std::string& new_name)
	1879	{
	1880	ai_assert(node_names.find(fixed_name) != node_names.end());
	1881	ai_assert(node_names.find(new_name) == node_names.end());
	1882
	1883	renamed_nodes[fixed_name] = new_name;
	1884
	1885	const aiString fn(fixed_name);
	1886
	1887	BOOST_FOREACH(aiCamera* cam, cameras) {
	1888	if (cam->mName == fn) {
	1889	cam->mName.Set(new_name);
	1890	break;
	1891	}
	1892	}
	1893
	1894	BOOST_FOREACH(aiLight* light, lights) {
	1895	if (light->mName == fn) {
	1896	light->mName.Set(new_name);
	1897	break;
	1898	}
	1899	}
	1900
	1901	BOOST_FOREACH(aiAnimation* anim, animations) {
	1902	for (unsigned int i = 0; i < anim->mNumChannels; ++i) {
	1903	aiNodeAnim* const na = anim->mChannels[i];
	1904	if (na->mNodeName == fn) {
	1905	na->mNodeName.Set(new_name);
	1906	break;
	1907	}
	1908	}
	1909	}
	1910	}
	1911
	1912
	1913	// ------------------------------------------------------------------------------------------------
	1914	// takes a fbx node name and returns the identifier to be used in the assimp output scene.
	1915	// the function is guaranteed to provide consistent results over multiple invocations
	1916	// UNLESS RenameNode() is called for a particular node name.
	1917	std::string FixNodeName(const std::string& name)
	1918	{
	1919	// strip Model:: prefix, avoiding ambiguities (i.e. don't strip if
	1920	// this causes ambiguities, well possible between empty identifiers,
	1921	// such as "Model::" and ""). Make sure the behaviour is consistent
	1922	// across multiple calls to FixNodeName().
	1923	if(name.substr(0,7) == "Model::") {
	1924	std::string temp = name.substr(7);
	1925
	1926	const NodeNameMap::const_iterator it = node_names.find(temp);
	1927	if (it != node_names.end()) {
	1928	if (!(*it).second) {
	1929	return FixNodeName(name + "_");
	1930	}
	1931	}
	1932	node_names[temp] = true;
	1933
	1934	const NameNameMap::const_iterator rit = renamed_nodes.find(temp);
	1935	return rit == renamed_nodes.end() ? temp : (*rit).second;
	1936	}
	1937
	1938	const NodeNameMap::const_iterator it = node_names.find(name);
	1939	if (it != node_names.end()) {
	1940	if ((*it).second) {
	1941	return FixNodeName(name + "_");
	1942	}
	1943	}
	1944	node_names[name] = false;
	1945
	1946	const NameNameMap::const_iterator rit = renamed_nodes.find(name);
	1947	return rit == renamed_nodes.end() ? name : (*rit).second;
	1948	}
	1949
	1950
	1951	typedef std::map<const AnimationCurveNode, const AnimationLayer> LayerMap;
	1952
	1953	// XXX: better use multi_map ..
	1954	typedef std::map<std::string, std::vector<const AnimationCurveNode*> > NodeMap;
	1955
	1956
	1957	// ------------------------------------------------------------------------------------------------
	1958	void ConvertAnimationStack(const AnimationStack& st)
	1959	{
	1960	const AnimationLayerList& layers = st.Layers();
	1961	if(layers.empty()) {
	1962	return;
	1963	}
	1964
	1965	aiAnimation* const anim = new aiAnimation();
	1966	animations.push_back(anim);
	1967
	1968	// strip AnimationStack:: prefix
	1969	std::string name = st.Name();
	1970	if(name.substr(0,16) == "AnimationStack::") {
	1971	name = name.substr(16);
	1972	}
	1973
	1974	anim->mName.Set(name);
	1975
	1976	// need to find all nodes for which we need to generate node animations -
	1977	// it may happen that we need to merge multiple layers, though.
	1978	NodeMap node_map;
	1979
	1980	// reverse mapping from curves to layers, much faster than querying
	1981	// the FBX DOM for it.
	1982	LayerMap layer_map;
	1983
	1984	const char* prop_whitelist[] = {
	1985	"Lcl Scaling",
	1986	"Lcl Rotation",
	1987	"Lcl Translation"
	1988	};
	1989
	1990	BOOST_FOREACH(const AnimationLayer* layer, layers) {
	1991	ai_assert(layer);
	1992
	1993	const AnimationCurveNodeList& nodes = layer->Nodes(prop_whitelist, 3);
	1994	BOOST_FOREACH(const AnimationCurveNode* node, nodes) {
	1995	ai_assert(node);
	1996
	1997	const Model* const model = dynamic_cast<const Model*>(node->Target());
	1998	// this can happen - it could also be a NodeAttribute (i.e. for camera animations)
	1999	if(!model) {
	2000	continue;
	2001	}
	2002
	2003	const std::string& name = FixNodeName(model->Name());
	2004	node_map[name].push_back(node);
	2005
	2006	layer_map[node] = layer;
	2007	}
	2008	}
	2009
	2010	// generate node animations
	2011	std::vector<aiNodeAnim*> node_anims;
	2012
	2013	double min_time = 1e10;
	2014	double max_time = -1e10;
	2015
	2016	try {
	2017	BOOST_FOREACH(const NodeMap::value_type& kv, node_map) {
	2018	GenerateNodeAnimations(node_anims,
	2019	kv.first,
	2020	kv.second,
	2021	layer_map,
	2022	max_time,
	2023	min_time);
	2024	}
	2025	}
	2026	catch(std::exception&) {
	2027	std::for_each(node_anims.begin(), node_anims.end(), Util::delete_fun<aiNodeAnim>());
	2028	throw;
	2029	}
	2030
	2031	if(node_anims.size()) {
	2032	anim->mChannels = new aiNodeAnim*[node_anims.size()]();
	2033	anim->mNumChannels = static_cast<unsigned int>(node_anims.size());
	2034
	2035	std::swap_ranges(node_anims.begin(),node_anims.end(),anim->mChannels);
	2036	}
	2037	else {
	2038	// empty animations would fail validation, so drop them
	2039	delete anim;
	2040	animations.pop_back();
	2041	FBXImporter::LogInfo("ignoring empty AnimationStack (using IK?): " + name);
	2042	return;
	2043	}
	2044
	2045	// for some mysterious reason, mDuration is simply the maximum key -- the
	2046	// validator always assumes animations to start at zero.
	2047	anim->mDuration = max_time /- min_time /;
	2048	anim->mTicksPerSecond = anim_fps;
	2049	}
	2050
	2051
	2052	// ------------------------------------------------------------------------------------------------
	2053	void GenerateNodeAnimations(std::vector<aiNodeAnim*>& node_anims,
	2054	const std::string& fixed_name,
	2055	const std::vector<const AnimationCurveNode*>& curves,
	2056	const LayerMap& layer_map,
	2057	double& max_time,
	2058	double& min_time)
	2059	{
	2060
	2061	NodeMap node_property_map;
	2062	ai_assert(curves.size());
	2063
	2064	// sanity check whether the input is ok
	2065	#ifdef ASSIMP_BUILD_DEBUG
	2066	{ const Object* target = NULL;
	2067	BOOST_FOREACH(const AnimationCurveNode* node, curves) {
	2068	if(!target) {
	2069	target = node->Target();
	2070	}
	2071	ai_assert(node->Target() == target);
	2072	}}
	2073	#endif
	2074
	2075	const AnimationCurveNode* curve_node = NULL;
	2076	BOOST_FOREACH(const AnimationCurveNode* node, curves) {
	2077	ai_assert(node);
	2078
	2079	if (node->TargetProperty().empty()) {
	2080	FBXImporter::LogWarn("target property for animation curve not set: " + node->Name());
	2081	continue;
	2082	}
	2083
	2084	curve_node = node;
	2085	if (node->Curves().empty()) {
	2086	FBXImporter::LogWarn("no animation curves assigned to AnimationCurveNode: " + node->Name());
	2087	continue;
	2088	}
	2089
	2090	node_property_map[node->TargetProperty()].push_back(node);
	2091	}
	2092
	2093	ai_assert(curve_node);
	2094	ai_assert(curve_node->TargetAsModel());
	2095
	2096	const Model& target = *curve_node->TargetAsModel();
	2097
	2098	// check for all possible transformation components
	2099	NodeMap::const_iterator chain[TransformationComp_MAXIMUM];
	2100
	2101	bool has_any = false;
	2102	bool has_complex = false;
	2103
	2104	for (size_t i = 0; i < TransformationComp_MAXIMUM; ++i) {
	2105	const TransformationComp comp = static_cast<TransformationComp>(i);
	2106
	2107	// inverse pivots don't exist in the input, we just generate them
	2108	if (comp == TransformationComp_RotationPivotInverse \|\| comp == TransformationComp_ScalingPivotInverse) {
	2109	chain[i] = node_property_map.end();
	2110	continue;
	2111	}
	2112
	2113	chain[i] = node_property_map.find(NameTransformationCompProperty(comp));
	2114	if (chain[i] != node_property_map.end()) {
	2115
	2116	// check if this curves contains redundant information by looking
	2117	// up the corresponding node's transformation chain.
	2118	if (doc.Settings().optimizeEmptyAnimationCurves &&
	2119	IsRedundantAnimationData(target, comp, (*chain[i]).second)) {
	2120
	2121	FBXImporter::LogDebug("dropping redundant animation channel for node " + target.Name());
	2122	continue;
	2123	}
	2124
	2125	has_any = true;
	2126
	2127	if (comp != TransformationComp_Rotation && comp != TransformationComp_Scaling && comp != TransformationComp_Translation &&
	2128	comp != TransformationComp_GeometricScaling && comp != TransformationComp_GeometricRotation && comp != TransformationComp_GeometricTranslation )
	2129	{
	2130	has_complex = true;
	2131	}
	2132	}
	2133	}
	2134
	2135	if (!has_any) {
	2136	FBXImporter::LogWarn("ignoring node animation, did not find any transformation key frames");
	2137	return;
	2138	}
	2139
	2140	// this needs to play nicely with GenerateTransformationNodeChain() which will
	2141	// be invoked _later_ (animations come first). If this node has only rotation,
	2142	// scaling and translation _and_ there are no animated other components either,
	2143	// we can use a single node and also a single node animation channel.
	2144	if (!has_complex && !NeedsComplexTransformationChain(target)) {
	2145
	2146	aiNodeAnim* const nd = GenerateSimpleNodeAnim(fixed_name, target, chain,
	2147	node_property_map.end(),
	2148	layer_map,
	2149	max_time,
	2150	min_time,
	2151	true // input is TRS order, assimp is SRT
	2152	);
	2153
	2154	ai_assert(nd);
	2155	node_anims.push_back(nd);
	2156	return;
	2157	}
	2158
	2159	// otherwise, things get gruesome and we need separate animation channels
	2160	// for each part of the transformation chain. Remember which channels
	2161	// we generated and pass this information to the node conversion
	2162	// code to avoid nodes that have identity transform, but non-identity
	2163	// animations, being dropped.
	2164	unsigned int flags = 0, bit = 0x1;
	2165	for (size_t i = 0; i < TransformationComp_MAXIMUM; ++i, bit <<= 1) {
	2166	const TransformationComp comp = static_cast<TransformationComp>(i);
	2167
	2168	if (chain[i] != node_property_map.end()) {
	2169	flags \|= bit;
	2170
	2171	ai_assert(comp != TransformationComp_RotationPivotInverse);
	2172	ai_assert(comp != TransformationComp_ScalingPivotInverse);
	2173
	2174	const std::string& chain_name = NameTransformationChainNode(fixed_name, comp);
	2175
	2176	aiNodeAnim* na;
	2177	switch(comp)
	2178	{
	2179	case TransformationComp_Rotation:
	2180	case TransformationComp_PreRotation:
	2181	case TransformationComp_PostRotation:
	2182	case TransformationComp_GeometricRotation:
	2183	na = GenerateRotationNodeAnim(chain_name,
	2184	target,
	2185	(*chain[i]).second,
	2186	layer_map,
	2187	max_time,
	2188	min_time);
	2189
	2190	break;
	2191
	2192	case TransformationComp_RotationOffset:
	2193	case TransformationComp_RotationPivot:
	2194	case TransformationComp_ScalingOffset:
	2195	case TransformationComp_ScalingPivot:
	2196	case TransformationComp_Translation:
	2197	case TransformationComp_GeometricTranslation:
	2198	na = GenerateTranslationNodeAnim(chain_name,
	2199	target,
	2200	(*chain[i]).second,
	2201	layer_map,
	2202	max_time,
	2203	min_time);
	2204
	2205	// pivoting requires us to generate an implicit inverse channel to undo the pivot translation
	2206	if (comp == TransformationComp_RotationPivot) {
	2207	const std::string& invName = NameTransformationChainNode(fixed_name,
	2208	TransformationComp_RotationPivotInverse);
	2209
	2210	aiNodeAnim* const inv = GenerateTranslationNodeAnim(invName,
	2211	target,
	2212	(*chain[i]).second,
	2213	layer_map,
	2214	max_time,
	2215	min_time,
	2216	true);
	2217
	2218	ai_assert(inv);
	2219	node_anims.push_back(inv);
	2220
	2221	ai_assert(TransformationComp_RotationPivotInverse > i);
	2222	flags \|= bit << (TransformationComp_RotationPivotInverse - i);
	2223	}
	2224	else if (comp == TransformationComp_ScalingPivot) {
	2225	const std::string& invName = NameTransformationChainNode(fixed_name,
	2226	TransformationComp_ScalingPivotInverse);
	2227
	2228	aiNodeAnim* const inv = GenerateTranslationNodeAnim(invName,
	2229	target,
	2230	(*chain[i]).second,
	2231	layer_map,
	2232	max_time,
	2233	min_time,
	2234	true);
	2235
	2236	ai_assert(inv);
	2237	node_anims.push_back(inv);
	2238
	2239	ai_assert(TransformationComp_RotationPivotInverse > i);
	2240	flags \|= bit << (TransformationComp_RotationPivotInverse - i);
	2241	}
	2242
	2243	break;
	2244
	2245	case TransformationComp_Scaling:
	2246	case TransformationComp_GeometricScaling:
	2247	na = GenerateScalingNodeAnim(chain_name,
	2248	target,
	2249	(*chain[i]).second,
	2250	layer_map,
	2251	max_time,
	2252	min_time);
	2253
	2254	break;
	2255
	2256	default:
	2257	ai_assert(false);
	2258	}
	2259
	2260	ai_assert(na);
	2261	node_anims.push_back(na);
	2262	continue;
	2263	}
	2264	}
	2265
	2266	node_anim_chain_bits[fixed_name] = flags;
	2267	}
	2268
	2269
	2270	// ------------------------------------------------------------------------------------------------
	2271	bool IsRedundantAnimationData(const Model& target,
	2272	TransformationComp comp,
	2273	const std::vector<const AnimationCurveNode*>& curves)
	2274	{
	2275	ai_assert(curves.size());
	2276
	2277	// look for animation nodes with
	2278	// * sub channels for all relevant components set
	2279	// * one key/value pair per component
	2280	// * combined values match up the corresponding value in the bind pose node transformation
	2281	// only such nodes are 'redundant' for this function.
	2282
	2283	if (curves.size() > 1) {
	2284	return false;
	2285	}
	2286
	2287	const AnimationCurveNode& nd = *curves.front();
	2288	const AnimationCurveMap& sub_curves = nd.Curves();
	2289
	2290	const AnimationCurveMap::const_iterator dx = sub_curves.find("d\|X");
	2291	const AnimationCurveMap::const_iterator dy = sub_curves.find("d\|Y");
	2292	const AnimationCurveMap::const_iterator dz = sub_curves.find("d\|Z");
	2293
	2294	if (dx == sub_curves.end() \|\| dy == sub_curves.end() \|\| dz == sub_curves.end()) {
	2295	return false;
	2296	}
	2297
	2298	const KeyValueList& vx = (*dx).second->GetValues();
	2299	const KeyValueList& vy = (*dy).second->GetValues();
	2300	const KeyValueList& vz = (*dz).second->GetValues();
	2301
	2302	if(vx.size() != 1 \|\| vy.size() != 1 \|\| vz.size() != 1) {
	2303	return false;
	2304	}
	2305
	2306	const aiVector3D dyn_val = aiVector3D(vx[0], vy[0], vz[0]);
	2307	const aiVector3D& static_val = PropertyGet<aiVector3D>(target.Props(),
	2308	NameTransformationCompProperty(comp),
	2309	TransformationCompDefaultValue(comp)
	2310	);
	2311
	2312	const float epsilon = 1e-6f;
	2313	return (dyn_val - static_val).SquareLength() < epsilon;
	2314	}
	2315
	2316
	2317	// ------------------------------------------------------------------------------------------------
	2318	aiNodeAnim* GenerateRotationNodeAnim(const std::string& name,
	2319	const Model& target,
	2320	const std::vector<const AnimationCurveNode*>& curves,
	2321	const LayerMap& layer_map,
	2322	double& max_time,
	2323	double& min_time)
	2324	{
	2325	ScopeGuard<aiNodeAnim> na(new aiNodeAnim());
	2326	na->mNodeName.Set(name);
	2327
	2328	ConvertRotationKeys(na, curves, layer_map, max_time,min_time, target.RotationOrder());
	2329
	2330	// dummy scaling key
	2331	na->mScalingKeys = new aiVectorKey[1];
	2332	na->mNumScalingKeys = 1;
	2333
	2334	na->mScalingKeys[0].mTime = 0.;
	2335	na->mScalingKeys[0].mValue = aiVector3D(1.0f,1.0f,1.0f);
	2336
	2337	// dummy position key
	2338	na->mPositionKeys = new aiVectorKey[1];
	2339	na->mNumPositionKeys = 1;
	2340
	2341	na->mPositionKeys[0].mTime = 0.;
	2342	na->mPositionKeys[0].mValue = aiVector3D();
	2343
	2344	return na.dismiss();
	2345	}
	2346
	2347
	2348	// ------------------------------------------------------------------------------------------------
	2349	aiNodeAnim* GenerateScalingNodeAnim(const std::string& name,
	2350	const Model& target,
	2351	const std::vector<const AnimationCurveNode*>& curves,
	2352	const LayerMap& layer_map,
	2353	double& max_time,
	2354	double& min_time)
	2355	{
	2356	ScopeGuard<aiNodeAnim> na(new aiNodeAnim());
	2357	na->mNodeName.Set(name);
	2358
	2359	ConvertScaleKeys(na, curves, layer_map, max_time,min_time);
	2360
	2361	// dummy rotation key
	2362	na->mRotationKeys = new aiQuatKey[1];
	2363	na->mNumRotationKeys = 1;
	2364
	2365	na->mRotationKeys[0].mTime = 0.;
	2366	na->mRotationKeys[0].mValue = aiQuaternion();
	2367
	2368	// dummy position key
	2369	na->mPositionKeys = new aiVectorKey[1];
	2370	na->mNumPositionKeys = 1;
	2371
	2372	na->mPositionKeys[0].mTime = 0.;
	2373	na->mPositionKeys[0].mValue = aiVector3D();
	2374
	2375	return na.dismiss();
	2376	}
	2377
	2378
	2379	// ------------------------------------------------------------------------------------------------
	2380	aiNodeAnim* GenerateTranslationNodeAnim(const std::string& name,
	2381	const Model& target,
	2382	const std::vector<const AnimationCurveNode*>& curves,
	2383	const LayerMap& layer_map,
	2384	double& max_time,
	2385	double& min_time,
	2386	bool inverse = false)
	2387	{
	2388	ScopeGuard<aiNodeAnim> na(new aiNodeAnim());
	2389	na->mNodeName.Set(name);
	2390
	2391	ConvertTranslationKeys(na, curves, layer_map, max_time,min_time);
	2392
	2393	if (inverse) {
	2394	for (unsigned int i = 0; i < na->mNumPositionKeys; ++i) {
	2395	na->mPositionKeys[i].mValue *= -1.0f;
	2396	}
	2397	}
	2398
	2399	// dummy scaling key
	2400	na->mScalingKeys = new aiVectorKey[1];
	2401	na->mNumScalingKeys = 1;
	2402
	2403	na->mScalingKeys[0].mTime = 0.;
	2404	na->mScalingKeys[0].mValue = aiVector3D(1.0f,1.0f,1.0f);
	2405
	2406	// dummy rotation key
	2407	na->mRotationKeys = new aiQuatKey[1];
	2408	na->mNumRotationKeys = 1;
	2409
	2410	na->mRotationKeys[0].mTime = 0.;
	2411	na->mRotationKeys[0].mValue = aiQuaternion();
	2412
	2413	return na.dismiss();
	2414	}
	2415
	2416
	2417	// ------------------------------------------------------------------------------------------------
	2418	// generate node anim, extracting only Rotation, Scaling and Translation from the given chain
	2419	aiNodeAnim* GenerateSimpleNodeAnim(const std::string& name,
	2420	const Model& target,
	2421	NodeMap::const_iterator chain[TransformationComp_MAXIMUM],
	2422	NodeMap::const_iterator iter_end,
	2423	const LayerMap& layer_map,
	2424	double& max_time,
	2425	double& min_time,
	2426	bool reverse_order = false)
	2427
	2428	{
	2429	ScopeGuard<aiNodeAnim> na(new aiNodeAnim());
	2430	na->mNodeName.Set(name);
	2431
	2432	const PropertyTable& props = target.Props();
	2433
	2434	// need to convert from TRS order to SRT?
	2435	if(reverse_order) {
	2436
	2437	aiVector3D def_scale, def_translate;
	2438	aiQuaternion def_rot;
	2439
	2440	KeyFrameListList scaling;
	2441	KeyFrameListList translation;
	2442	KeyFrameListList rotation;
	2443
	2444	if(chain[TransformationComp_Scaling] != iter_end) {
	2445	scaling = GetKeyframeList((*chain[TransformationComp_Scaling]).second);
	2446	}
	2447	else {
	2448	def_scale = PropertyGet(props,"Lcl Scaling",aiVector3D(1.f,1.f,1.f));
	2449	}
	2450
	2451	if(chain[TransformationComp_Translation] != iter_end) {
	2452	translation = GetKeyframeList((*chain[TransformationComp_Translation]).second);
	2453	}
	2454	else {
	2455	def_translate = PropertyGet(props,"Lcl Translation",aiVector3D(0.f,0.f,0.f));
	2456	}
	2457
	2458	if(chain[TransformationComp_Rotation] != iter_end) {
	2459	rotation = GetKeyframeList((*chain[TransformationComp_Rotation]).second);
	2460	}
	2461	else {
	2462	def_rot = EulerToQuaternion(PropertyGet(props,"Lcl Rotation",aiVector3D(0.f,0.f,0.f)),
	2463	target.RotationOrder());
	2464	}
	2465
	2466	KeyFrameListList joined;
	2467	joined.insert(joined.end(), scaling.begin(), scaling.end());
	2468	joined.insert(joined.end(), translation.begin(), translation.end());
	2469	joined.insert(joined.end(), rotation.begin(), rotation.end());
	2470
	2471	const KeyTimeList& times = GetKeyTimeList(joined);
	2472
	2473	aiQuatKey* out_quat = new aiQuatKey[times.size()];
	2474	aiVectorKey* out_scale = new aiVectorKey[times.size()];
	2475	aiVectorKey* out_translation = new aiVectorKey[times.size()];
	2476
	2477	ConvertTransformOrder_TRStoSRT(out_quat, out_scale, out_translation,
	2478	scaling,
	2479	translation,
	2480	rotation,
	2481	times,
	2482	max_time,
	2483	min_time,
	2484	target.RotationOrder(),
	2485	def_scale,
	2486	def_translate,
	2487	def_rot);
	2488
	2489	// XXX remove duplicates / redundant keys which this operation did
	2490	// likely produce if not all three channels were equally dense.
	2491
	2492	na->mNumScalingKeys = static_cast<unsigned int>(times.size());
	2493	na->mNumRotationKeys = na->mNumScalingKeys;
	2494	na->mNumPositionKeys = na->mNumScalingKeys;
	2495
	2496	na->mScalingKeys = out_scale;
	2497	na->mRotationKeys = out_quat;
	2498	na->mPositionKeys = out_translation;
	2499	}
	2500	else {
	2501
	2502	// if a particular transformation is not given, grab it from
	2503	// the corresponding node to meet the semantics of aiNodeAnim,
	2504	// which requires all of rotation, scaling and translation
	2505	// to be set.
	2506	if(chain[TransformationComp_Scaling] != iter_end) {
	2507	ConvertScaleKeys(na, (*chain[TransformationComp_Scaling]).second,
	2508	layer_map,
	2509	max_time,
	2510	min_time);
	2511	}
	2512	else {
	2513	na->mScalingKeys = new aiVectorKey[1];
	2514	na->mNumScalingKeys = 1;
	2515
	2516	na->mScalingKeys[0].mTime = 0.;
	2517	na->mScalingKeys[0].mValue = PropertyGet(props,"Lcl Scaling",
	2518	aiVector3D(1.f,1.f,1.f));
	2519	}
	2520
	2521	if(chain[TransformationComp_Rotation] != iter_end) {
	2522	ConvertRotationKeys(na, (*chain[TransformationComp_Rotation]).second,
	2523	layer_map,
	2524	max_time,
	2525	min_time,
	2526	target.RotationOrder());
	2527	}
	2528	else {
	2529	na->mRotationKeys = new aiQuatKey[1];
	2530	na->mNumRotationKeys = 1;
	2531
	2532	na->mRotationKeys[0].mTime = 0.;
	2533	na->mRotationKeys[0].mValue = EulerToQuaternion(
	2534	PropertyGet(props,"Lcl Rotation",aiVector3D(0.f,0.f,0.f)),
	2535	target.RotationOrder());
	2536	}
	2537
	2538	if(chain[TransformationComp_Translation] != iter_end) {
	2539	ConvertTranslationKeys(na, (*chain[TransformationComp_Translation]).second,
	2540	layer_map,
	2541	max_time,
	2542	min_time);
	2543	}
	2544	else {
	2545	na->mPositionKeys = new aiVectorKey[1];
	2546	na->mNumPositionKeys = 1;
	2547
	2548	na->mPositionKeys[0].mTime = 0.;
	2549	na->mPositionKeys[0].mValue = PropertyGet(props,"Lcl Translation",
	2550	aiVector3D(0.f,0.f,0.f));
	2551	}
	2552
	2553	}
	2554	return na.dismiss();
	2555	}
	2556
	2557
	2558
	2559	// key (time), value, mapto (component index)
	2560	typedef boost::tuple< const KeyTimeList, const KeyValueList, unsigned int > KeyFrameList;
	2561	typedef std::vector<KeyFrameList> KeyFrameListList;
	2562
	2563
	2564
	2565	// ------------------------------------------------------------------------------------------------
	2566	KeyFrameListList GetKeyframeList(const std::vector<const AnimationCurveNode*>& nodes)
	2567	{
	2568	KeyFrameListList inputs;
	2569	inputs.reserve(nodes.size()*3);
	2570
	2571	BOOST_FOREACH(const AnimationCurveNode* node, nodes) {
	2572	ai_assert(node);
	2573
	2574	const AnimationCurveMap& curves = node->Curves();
	2575	BOOST_FOREACH(const AnimationCurveMap::value_type& kv, curves) {
	2576
	2577	unsigned int mapto;
	2578	if (kv.first == "d\|X") {
	2579	mapto = 0;
	2580	}
	2581	else if (kv.first == "d\|Y") {
	2582	mapto = 1;
	2583	}
	2584	else if (kv.first == "d\|Z") {
	2585	mapto = 2;
	2586	}
	2587	else {
	2588	FBXImporter::LogWarn("ignoring scale animation curve, did not recognize target component");
	2589	continue;
	2590	}
	2591
	2592	const AnimationCurve* const curve = kv.second;
	2593	ai_assert(curve->GetKeys().size() == curve->GetValues().size() && curve->GetKeys().size());
	2594
	2595	inputs.push_back(boost::make_tuple(&curve->GetKeys(), &curve->GetValues(), mapto));
	2596	}
	2597	}
	2598	return inputs; // pray for NRVO :-)
	2599	}
	2600
	2601
	2602	// ------------------------------------------------------------------------------------------------
	2603	KeyTimeList GetKeyTimeList(const KeyFrameListList& inputs)
	2604	{
	2605	ai_assert(inputs.size());
	2606
	2607	// reserve some space upfront - it is likely that the keyframe lists
	2608	// have matching time values, so max(of all keyframe lists) should
	2609	// be a good estimate.
	2610	KeyTimeList keys;
	2611
	2612	size_t estimate = 0;
	2613	BOOST_FOREACH(const KeyFrameList& kfl, inputs) {
	2614	estimate = std::max(estimate, kfl.get<0>()->size());
	2615	}
	2616
	2617	keys.reserve(estimate);
	2618
	2619	std::vector<unsigned int> next_pos;
	2620	next_pos.resize(inputs.size(),0);
	2621
	2622	const size_t count = inputs.size();
	2623	while(true) {
	2624
	2625	uint64_t min_tick = std::numeric_limits<uint64_t>::max();
	2626	for (size_t i = 0; i < count; ++i) {
	2627	const KeyFrameList& kfl = inputs[i];
	2628
	2629	if (kfl.get<0>()->size() > next_pos[i] && kfl.get<0>()->at(next_pos[i]) < min_tick) {
	2630	min_tick = kfl.get<0>()->at(next_pos[i]);
	2631	}
	2632	}
	2633
	2634	if (min_tick == std::numeric_limits<uint64_t>::max()) {
	2635	break;
	2636	}
	2637	keys.push_back(min_tick);
	2638
	2639	for (size_t i = 0; i < count; ++i) {
	2640	const KeyFrameList& kfl = inputs[i];
	2641
	2642
	2643	while(kfl.get<0>()->size() > next_pos[i] && kfl.get<0>()->at(next_pos[i]) == min_tick) {
	2644	++next_pos[i];
	2645	}
	2646	}
	2647	}
	2648
	2649	return keys;
	2650	}
	2651
	2652
	2653	// ------------------------------------------------------------------------------------------------
	2654	void InterpolateKeys(aiVectorKey* valOut,const KeyTimeList& keys, const KeyFrameListList& inputs,
	2655	const bool geom,
	2656	double& max_time,
	2657	double& min_time)
	2658
	2659	{
	2660	ai_assert(keys.size());
	2661	ai_assert(valOut);
	2662
	2663	std::vector<unsigned int> next_pos;
	2664	const size_t count = inputs.size();
	2665
	2666	next_pos.resize(inputs.size(),0);
	2667
	2668	BOOST_FOREACH(KeyTimeList::value_type time, keys) {
	2669	float result[3] = {0.0f, 0.0f, 0.0f};
	2670	if(geom) {
	2671	result[0] = result[1] = result[2] = 1.0f;
	2672	}
	2673
	2674	for (size_t i = 0; i < count; ++i) {
	2675	const KeyFrameList& kfl = inputs[i];
	2676
	2677	const size_t ksize = kfl.get<0>()->size();
	2678	if (ksize > next_pos[i] && kfl.get<0>()->at(next_pos[i]) == time) {
	2679	++next_pos[i];
	2680	}
	2681
	2682	const size_t id0 = next_pos[i]>0 ? next_pos[i]-1 : 0;
	2683	const size_t id1 = next_pos[i]==ksize ? ksize-1 : next_pos[i];
	2684
	2685	// use lerp for interpolation
	2686	const KeyValueList::value_type valueA = kfl.get<1>()->at(id0);
	2687	const KeyValueList::value_type valueB = kfl.get<1>()->at(id1);
	2688
	2689	const KeyTimeList::value_type timeA = kfl.get<0>()->at(id0);
	2690	const KeyTimeList::value_type timeB = kfl.get<0>()->at(id1);
	2691
	2692	// do the actual interpolation in double-precision arithmetics
	2693	// because it is a bit sensitive to rounding errors.
	2694	const double factor = timeB == timeA ? 0. : static_cast<double>((time - timeA) / (timeB - timeA));
	2695	const float interpValue = static_cast<float>(valueA + (valueB - valueA) * factor);
	2696
	2697	if(geom) {
	2698	result[kfl.get<2>()] *= interpValue;
	2699	}
	2700	else {
	2701	result[kfl.get<2>()] += interpValue;
	2702	}
	2703	}
	2704
	2705	// magic value to convert fbx times to seconds
	2706	valOut->mTime = CONVERT_FBX_TIME(time) * anim_fps;
	2707
	2708	min_time = std::min(min_time, valOut->mTime);
	2709	max_time = std::max(max_time, valOut->mTime);
	2710
	2711	valOut->mValue.x = result[0];
	2712	valOut->mValue.y = result[1];
	2713	valOut->mValue.z = result[2];
	2714
	2715	++valOut;
	2716	}
	2717	}
	2718
	2719
	2720	// ------------------------------------------------------------------------------------------------
	2721	void InterpolateKeys(aiQuatKey* valOut,const KeyTimeList& keys, const KeyFrameListList& inputs,
	2722	const bool geom,
	2723	double& maxTime,
	2724	double& minTime,
	2725	Model::RotOrder order)
	2726	{
	2727	ai_assert(keys.size());
	2728	ai_assert(valOut);
	2729
	2730	boost::scoped_array<aiVectorKey> temp(new aiVectorKey[keys.size()]);
	2731	InterpolateKeys(temp.get(),keys,inputs,geom,maxTime, minTime);
	2732
	2733	aiMatrix4x4 m;
	2734
	2735	aiQuaternion lastq;
	2736
	2737	for (size_t i = 0, c = keys.size(); i < c; ++i) {
	2738
	2739	valOut[i].mTime = temp[i].mTime;
	2740
	2741
	2742	GetRotationMatrix(order, temp[i].mValue, m);
	2743	aiQuaternion quat = aiQuaternion(aiMatrix3x3(m));
	2744
	2745	// take shortest path by checking the inner product
	2746	// http://www.3dkingdoms.com/weekly/weekly.php?a=36
	2747	if (quat.x * lastq.x + quat.y * lastq.y + quat.z * lastq.z + quat.w * lastq.w < 0)
	2748	{
	2749	quat.x = -quat.x;
	2750	quat.y = -quat.y;
	2751	quat.z = -quat.z;
	2752	quat.w = -quat.w;
	2753	}
	2754	lastq = quat;
	2755
	2756	valOut[i].mValue = quat;
	2757	}
	2758	}
	2759
	2760
	2761	// ------------------------------------------------------------------------------------------------
	2762	void ConvertTransformOrder_TRStoSRT(aiQuatKey* out_quat, aiVectorKey* out_scale,
	2763	aiVectorKey* out_translation,
	2764	const KeyFrameListList& scaling,
	2765	const KeyFrameListList& translation,
	2766	const KeyFrameListList& rotation,
	2767	const KeyTimeList& times,
	2768	double& maxTime,
	2769	double& minTime,
	2770	Model::RotOrder order,
	2771	const aiVector3D& def_scale,
	2772	const aiVector3D& def_translate,
	2773	const aiQuaternion& def_rotation)
	2774	{
	2775	if (rotation.size()) {
	2776	InterpolateKeys(out_quat, times, rotation, false, maxTime, minTime, order);
	2777	}
	2778	else {
	2779	for (size_t i = 0; i < times.size(); ++i) {
	2780	out_quat[i].mTime = CONVERT_FBX_TIME(times[i]) * anim_fps;
	2781	out_quat[i].mValue = def_rotation;
	2782	}
	2783	}
	2784
	2785	if (scaling.size()) {
	2786	InterpolateKeys(out_scale, times, scaling, true, maxTime, minTime);
	2787	}
	2788	else {
	2789	for (size_t i = 0; i < times.size(); ++i) {
	2790	out_scale[i].mTime = CONVERT_FBX_TIME(times[i]) * anim_fps;
	2791	out_scale[i].mValue = def_scale;
	2792	}
	2793	}
	2794
	2795	if (translation.size()) {
	2796	InterpolateKeys(out_translation, times, translation, false, maxTime, minTime);
	2797	}
	2798	else {
	2799	for (size_t i = 0; i < times.size(); ++i) {
	2800	out_translation[i].mTime = CONVERT_FBX_TIME(times[i]) * anim_fps;
	2801	out_translation[i].mValue = def_translate;
	2802	}
	2803	}
	2804
	2805	const size_t count = times.size();
	2806	for (size_t i = 0; i < count; ++i) {
	2807	aiQuaternion& r = out_quat[i].mValue;
	2808	aiVector3D& s = out_scale[i].mValue;
	2809	aiVector3D& t = out_translation[i].mValue;
	2810
	2811	aiMatrix4x4 mat, temp;
	2812	aiMatrix4x4::Translation(t, mat);
	2813	mat *= aiMatrix4x4( r.GetMatrix() );
	2814	mat *= aiMatrix4x4::Scaling(s, temp);
	2815
	2816	mat.Decompose(s, r, t);
	2817	}
	2818	}
	2819
	2820
	2821	// ------------------------------------------------------------------------------------------------
	2822	// euler xyz -> quat
	2823	aiQuaternion EulerToQuaternion(const aiVector3D& rot, Model::RotOrder order)
	2824	{
	2825	aiMatrix4x4 m;
	2826	GetRotationMatrix(order, rot, m);
	2827
	2828	return aiQuaternion(aiMatrix3x3(m));
	2829	}
	2830
	2831
	2832	// ------------------------------------------------------------------------------------------------
	2833	void ConvertScaleKeys(aiNodeAnim* na, const std::vector<const AnimationCurveNode*>& nodes, const LayerMap& layers,
	2834	double& maxTime,
	2835	double& minTime)
	2836	{
	2837	ai_assert(nodes.size());
	2838
	2839	// XXX for now, assume scale should be blended geometrically (i.e. two
	2840	// layers should be multiplied with each other). There is a FBX
	2841	// property in the layer to specify the behaviour, though.
	2842
	2843	const KeyFrameListList& inputs = GetKeyframeList(nodes);
	2844	const KeyTimeList& keys = GetKeyTimeList(inputs);
	2845
	2846	na->mNumScalingKeys = static_cast<unsigned int>(keys.size());
	2847	na->mScalingKeys = new aiVectorKey[keys.size()];
	2848	InterpolateKeys(na->mScalingKeys, keys, inputs, true, maxTime, minTime);
	2849	}
	2850
	2851
	2852	// ------------------------------------------------------------------------------------------------
	2853	void ConvertTranslationKeys(aiNodeAnim* na, const std::vector<const AnimationCurveNode*>& nodes,
	2854	const LayerMap& layers,
	2855	double& maxTime,
	2856	double& minTime)
	2857	{
	2858	ai_assert(nodes.size());
	2859
	2860	// XXX see notes in ConvertScaleKeys()
	2861	const KeyFrameListList& inputs = GetKeyframeList(nodes);
	2862	const KeyTimeList& keys = GetKeyTimeList(inputs);
	2863
	2864	na->mNumPositionKeys = static_cast<unsigned int>(keys.size());
	2865	na->mPositionKeys = new aiVectorKey[keys.size()];
	2866	InterpolateKeys(na->mPositionKeys, keys, inputs, false, maxTime, minTime);
	2867	}
	2868
	2869
	2870	// ------------------------------------------------------------------------------------------------
	2871	void ConvertRotationKeys(aiNodeAnim* na, const std::vector<const AnimationCurveNode*>& nodes,
	2872	const LayerMap& layers,
	2873	double& maxTime,
	2874	double& minTime,
	2875	Model::RotOrder order)
	2876	{
	2877	ai_assert(nodes.size());
	2878
	2879	// XXX see notes in ConvertScaleKeys()
	2880	const std::vector< KeyFrameList >& inputs = GetKeyframeList(nodes);
	2881	const KeyTimeList& keys = GetKeyTimeList(inputs);
	2882
	2883	na->mNumRotationKeys = static_cast<unsigned int>(keys.size());
	2884	na->mRotationKeys = new aiQuatKey[keys.size()];
	2885	InterpolateKeys(na->mRotationKeys, keys, inputs, false, maxTime, minTime, order);
	2886	}
	2887
	2888
	2889	// ------------------------------------------------------------------------------------------------
	2890	// copy generated meshes, animations, lights, cameras and textures to the output scene
	2891	void TransferDataToScene()
	2892	{
	2893	ai_assert(!out->mMeshes && !out->mNumMeshes);
	2894
	2895	// note: the trailing () ensures initialization with NULL - not
	2896	// many C++ users seem to know this, so pointing it out to avoid
	2897	// confusion why this code works.
	2898
	2899	if(meshes.size()) {
	2900	out->mMeshes = new aiMesh*[meshes.size()]();
	2901	out->mNumMeshes = static_cast<unsigned int>(meshes.size());
	2902
	2903	std::swap_ranges(meshes.begin(),meshes.end(),out->mMeshes);
	2904	}
	2905
	2906	if(materials.size()) {
	2907	out->mMaterials = new aiMaterial*[materials.size()]();
	2908	out->mNumMaterials = static_cast<unsigned int>(materials.size());
	2909
	2910	std::swap_ranges(materials.begin(),materials.end(),out->mMaterials);
	2911	}
	2912
	2913	if(animations.size()) {
	2914	out->mAnimations = new aiAnimation*[animations.size()]();
	2915	out->mNumAnimations = static_cast<unsigned int>(animations.size());
	2916
	2917	std::swap_ranges(animations.begin(),animations.end(),out->mAnimations);
	2918	}
	2919
	2920	if(lights.size()) {
	2921	out->mLights = new aiLight*[lights.size()]();
	2922	out->mNumLights = static_cast<unsigned int>(lights.size());
	2923
	2924	std::swap_ranges(lights.begin(),lights.end(),out->mLights);
	2925	}
	2926
	2927	if(cameras.size()) {
	2928	out->mCameras = new aiCamera*[cameras.size()]();
	2929	out->mNumCameras = static_cast<unsigned int>(cameras.size());
	2930
	2931	std::swap_ranges(cameras.begin(),cameras.end(),out->mCameras);
	2932	}
	2933	}
	2934
	2935
	2936	private:
	2937
	2938	// 0: not assigned yet, others: index is value - 1
	2939	unsigned int defaultMaterialIndex;
	2940
	2941	std::vector<aiMesh*> meshes;
	2942	std::vector<aiMaterial*> materials;
	2943	std::vector<aiAnimation*> animations;
	2944	std::vector<aiLight*> lights;
	2945	std::vector<aiCamera*> cameras;
	2946
	2947	typedef std::map<const Material*, unsigned int> MaterialMap;
	2948	MaterialMap materials_converted;
	2949
	2950	typedef std::map<const Geometry*, std::vector<unsigned int> > MeshMap;
	2951	MeshMap meshes_converted;
	2952
	2953	// fixed node name -> which trafo chain components have animations?
	2954	typedef std::map<std::string, unsigned int> NodeAnimBitMap;
	2955	NodeAnimBitMap node_anim_chain_bits;
	2956
	2957	// name -> has had its prefix_stripped?
	2958	typedef std::map<std::string, bool> NodeNameMap;
	2959	NodeNameMap node_names;
	2960
	2961	typedef std::map<std::string, std::string> NameNameMap;
	2962	NameNameMap renamed_nodes;
	2963
	2964	double anim_fps;
	2965
	2966	aiScene* const out;
	2967	const FBX::Document& doc;
	2968	};
	2969
	2970	//} // !anon
	2971
	2972	// ------------------------------------------------------------------------------------------------
	2973	void ConvertToAssimpScene(aiScene* out, const Document& doc)
	2974	{
	2975	Converter converter(out,doc);
	2976	}
	2977
	2978	} // !FBX
	2979	} // !Assimp
	2980
	2981	#endif

+63

-0

code/FBXConverter.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXDConverter.h
	41	* @brief FBX DOM to aiScene conversion
	42	*/
	43	#ifndef INCLUDED_AI_FBX_CONVERTER_H
	44	#define INCLUDED_AI_FBX_CONVERTER_H
	45
	46	namespace Assimp {
	47	namespace FBX {
	48
	49	class Document;
	50
	51
	52	/** Convert a FBX #Document to #aiScene
	53	* @param out Empty scene to be populated
	54	* @param doc Parsed FBX document */
	55	void ConvertToAssimpScene(aiScene* out, const Document& doc);
	56
	57
	58	}
	59	}
	60
	61
	62	#endif

+169

-0

code/FBXDeformer.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXNoteAttribute.cpp
	41	* @brief Assimp::FBX::NodeAttribute (and subclasses) implementation
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	#include "FBXParser.h"
	48	#include "FBXDocument.h"
	49	#include "FBXImporter.h"
	50	#include "FBXImportSettings.h"
	51	#include "FBXDocumentUtil.h"
	52	#include "FBXProperties.h"
	53
	54	namespace Assimp {
	55	namespace FBX {
	56
	57	using namespace Util;
	58
	59	// ------------------------------------------------------------------------------------------------
	60	Deformer::Deformer(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	61	: Object(id,element,name)
	62	{
	63	const Scope& sc = GetRequiredScope(element);
	64
	65	const std::string& classname = ParseTokenAsString(GetRequiredToken(element,2));
	66	props = GetPropertyTable(doc,"Deformer.Fbx" + classname,element,sc,true);
	67	}
	68
	69
	70	// ------------------------------------------------------------------------------------------------
	71	Deformer::~Deformer()
	72	{
	73
	74	}
	75
	76
	77	// ------------------------------------------------------------------------------------------------
	78	Cluster::Cluster(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	79	: Deformer(id,element,doc,name)
	80	, node()
	81	{
	82	const Scope& sc = GetRequiredScope(element);
	83
	84	const Element* const Indexes = sc["Indexes"];
	85	const Element* const Weights = sc["Weights"];
	86
	87	const Element& Transform = GetRequiredElement(sc,"Transform",&element);
	88	const Element& TransformLink = GetRequiredElement(sc,"TransformLink",&element);
	89
	90	transform = ReadMatrix(Transform);
	91	transformLink = ReadMatrix(TransformLink);
	92
	93	// it is actually possible that there be Deformer's with no weights
	94	if (!!Indexes != !!Weights) {
	95	DOMError("either Indexes or Weights are missing from Cluster",&element);
	96	}
	97
	98	if(Indexes) {
	99	ParseVectorDataArray(indices,*Indexes);
	100	ParseVectorDataArray(weights,*Weights);
	101	}
	102
	103	if(indices.size() != weights.size()) {
	104	DOMError("sizes of index and weight array don't match up",&element);
	105	}
	106
	107	// read assigned node
	108	const std::vector<const Connection*>& conns = doc.GetConnectionsByDestinationSequenced(ID(),"Model");
	109	BOOST_FOREACH(const Connection* con, conns) {
	110	const Model* const mod = ProcessSimpleConnection<Model>(*con, false, "Model -> Cluster", element);
	111	if(mod) {
	112	node = mod;
	113	break;
	114	}
	115	}
	116
	117	if (!node) {
	118	DOMError("failed to read target Node for Cluster",&element);
	119	}
	120	}
	121
	122
	123	// ------------------------------------------------------------------------------------------------
	124	Cluster::~Cluster()
	125	{
	126
	127	}
	128
	129
	130	// ------------------------------------------------------------------------------------------------
	131	Skin::Skin(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	132	: Deformer(id,element,doc,name)
	133	{
	134	const Scope& sc = GetRequiredScope(element);
	135
	136	const Element* const Link_DeformAcuracy = sc["Link_DeformAcuracy"];
	137	if(Link_DeformAcuracy) {
	138	accuracy = ParseTokenAsFloat(GetRequiredToken(*Link_DeformAcuracy,0));
	139	}
	140
	141	// resolve assigned clusters
	142	const std::vector<const Connection*>& conns = doc.GetConnectionsByDestinationSequenced(ID(),"Deformer");
	143
	144	clusters.reserve(conns.size());
	145	BOOST_FOREACH(const Connection* con, conns) {
	146
	147	const Cluster* const cluster = ProcessSimpleConnection<Cluster>(*con, false, "Cluster -> Skin", element);
	148	if(cluster) {
	149	clusters.push_back(cluster);
	150	continue;
	151	}
	152	}
	153	}
	154
	155
	156	// ------------------------------------------------------------------------------------------------
	157	Skin::~Skin()
	158	{
	159
	160	}
	161
	162
	163
	164	}
	165	}
	166
	167	#endif
	168

+721

-0

code/FBXDocument.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the*
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXDocument.cpp
	41	* @brief Implementation of the FBX DOM classes
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	#include <functional>
	48
	49	#include "FBXParser.h"
	50	#include "FBXDocument.h"
	51	#include "FBXUtil.h"
	52	#include "FBXImporter.h"
	53	#include "FBXImportSettings.h"
	54	#include "FBXDocumentUtil.h"
	55	#include "FBXProperties.h"
	56
	57	namespace Assimp {
	58	namespace FBX {
	59
	60	using namespace Util;
	61
	62	// ------------------------------------------------------------------------------------------------
	63	LazyObject::LazyObject(uint64_t id, const Element& element, const Document& doc)
	64	: doc(doc)
	65	, element(element)
	66	, id(id)
	67	, flags()
	68	{
	69
	70	}
	71
	72	// ------------------------------------------------------------------------------------------------
	73	LazyObject::~LazyObject()
	74	{
	75
	76	}
	77
	78	// ------------------------------------------------------------------------------------------------
	79	const Object* LazyObject::Get(bool dieOnError)
	80	{
	81	if(IsBeingConstructed() \|\| FailedToConstruct()) {
	82	return NULL;
	83	}
	84
	85	if (object.get()) {
	86	return object.get();
	87	}
	88
	89	// if this is the root object, we return a dummy since there
	90	// is no root object int he fbx file - it is just referenced
	91	// with id 0.
	92	if(id == 0L) {
	93	object.reset(new Object(id, element, "Model::RootNode"));
	94	return object.get();
	95	}
	96
	97	const Token& key = element.KeyToken();
	98	const TokenList& tokens = element.Tokens();
	99
	100	if(tokens.size() < 3) {
	101	DOMError("expected at least 3 tokens: id, name and class tag",&element);
	102	}
	103
	104	const char* err;
	105	std::string name = ParseTokenAsString(*tokens[1],err);
	106	if (err) {
	107	DOMError(err,&element);
	108	}
	109
	110	// small fix for binary reading: binary fbx files don't use
	111	// prefixes such as Model:: in front of their names. The
	112	// loading code expects this at many places, though!
	113	// so convert the binary representation (a 0x0001) to the
	114	// double colon notation.
	115	if(tokens[1]->IsBinary()) {
	116	for (size_t i = 0; i < name.length(); ++i) {
	117	if (name[i] == 0x0 && name[i+1] == 0x1) {
	118	name = name.substr(i+2) + "::" + name.substr(0,i);
	119	}
	120	}
	121	}
	122
	123	const std::string classtag = ParseTokenAsString(*tokens[2],err);
	124	if (err) {
	125	DOMError(err,&element);
	126	}
	127
	128	// prevent recursive calls
	129	flags \|= BEING_CONSTRUCTED;
	130
	131	try {
	132	// this needs to be relatively fast since it happens a lot,
	133	// so avoid constructing strings all the time.
	134	const char* obtype = key.begin();
	135	const size_t length = static_cast<size_t>(key.end()-key.begin());
	136	if (!strncmp(obtype,"Geometry",length)) {
	137	if (!strcmp(classtag.c_str(),"Mesh")) {
	138	object.reset(new MeshGeometry(id,element,name,doc));
	139	}
	140	}
	141	else if (!strncmp(obtype,"NodeAttribute",length)) {
	142	if (!strcmp(classtag.c_str(),"Camera")) {
	143	object.reset(new Camera(id,element,doc,name));
	144	}
	145	else if (!strcmp(classtag.c_str(),"CameraSwitcher")) {
	146	object.reset(new CameraSwitcher(id,element,doc,name));
	147	}
	148	else if (!strcmp(classtag.c_str(),"Light")) {
	149	object.reset(new Light(id,element,doc,name));
	150	}
	151	else if (!strcmp(classtag.c_str(),"Null")) {
	152	object.reset(new Null(id,element,doc,name));
	153	}
	154	else if (!strcmp(classtag.c_str(),"LimbNode")) {
	155	object.reset(new LimbNode(id,element,doc,name));
	156	}
	157	}
	158	else if (!strncmp(obtype,"Deformer",length)) {
	159	if (!strcmp(classtag.c_str(),"Cluster")) {
	160	object.reset(new Cluster(id,element,doc,name));
	161	}
	162	else if (!strcmp(classtag.c_str(),"Skin")) {
	163	object.reset(new Skin(id,element,doc,name));
	164	}
	165	}
	166	else if (!strncmp(obtype,"Model",length)) {
	167	// FK and IK effectors are not supported
	168	if (strcmp(classtag.c_str(),"IKEffector") && strcmp(classtag.c_str(),"FKEffector")) {
	169	object.reset(new Model(id,element,doc,name));
	170	}
	171	}
	172	else if (!strncmp(obtype,"Material",length)) {
	173	object.reset(new Material(id,element,doc,name));
	174	}
	175	else if (!strncmp(obtype,"Texture",length)) {
	176	object.reset(new Texture(id,element,doc,name));
	177	}
	178	else if (!strncmp(obtype,"LayeredTexture",length)) {
	179	object.reset(new LayeredTexture(id,element,doc,name));
	180	}
	181	else if (!strncmp(obtype,"AnimationStack",length)) {
	182	object.reset(new AnimationStack(id,element,name,doc));
	183	}
	184	else if (!strncmp(obtype,"AnimationLayer",length)) {
	185	object.reset(new AnimationLayer(id,element,name,doc));
	186	}
	187	// note: order matters for these two
	188	else if (!strncmp(obtype,"AnimationCurve",length)) {
	189	object.reset(new AnimationCurve(id,element,name,doc));
	190	}
	191	else if (!strncmp(obtype,"AnimationCurveNode",length)) {
	192	object.reset(new AnimationCurveNode(id,element,name,doc));
	193	}
	194	}
	195	catch(std::exception& ex) {
	196	flags &= ~BEING_CONSTRUCTED;
	197	flags \|= FAILED_TO_CONSTRUCT;
	198
	199	if(dieOnError \|\| doc.Settings().strictMode) {
	200	throw;
	201	}
	202
	203	// note: the error message is already formatted, so raw logging is ok
	204	if(!DefaultLogger::isNullLogger()) {
	205	DefaultLogger::get()->error(ex.what());
	206	}
	207	return NULL;
	208	}
	209
	210	if (!object.get()) {
	211	//DOMError("failed to convert element to DOM object, class: " + classtag + ", name: " + name,&element);
	212	}
	213
	214	flags &= ~BEING_CONSTRUCTED;
	215	return object.get();
	216	}
	217
	218	// ------------------------------------------------------------------------------------------------
	219	Object::Object(uint64_t id, const Element& element, const std::string& name)
	220	: element(element)
	221	, name(name)
	222	, id(id)
	223	{
	224
	225	}
	226
	227	// ------------------------------------------------------------------------------------------------
	228	Object::~Object()
	229	{
	230
	231	}
	232
	233
	234	// ------------------------------------------------------------------------------------------------
	235	FileGlobalSettings::FileGlobalSettings(const Document& doc, boost::shared_ptr<const PropertyTable> props)
	236	: props(props)
	237	, doc(doc)
	238	{
	239
	240	}
	241
	242
	243	// ------------------------------------------------------------------------------------------------
	244	FileGlobalSettings::~FileGlobalSettings()
	245	{
	246
	247	}
	248
	249
	250	// ------------------------------------------------------------------------------------------------
	251	Document::Document(const Parser& parser, const ImportSettings& settings)
	252	: settings(settings)
	253	, parser(parser)
	254	{
	255	// cannot use array default initialization syntax because vc8 fails on it
	256	for (unsigned int i = 0; i < 7; ++i) {
	257	creationTimeStamp[i] = 0;
	258	}
	259
	260	ReadHeader();
	261	ReadPropertyTemplates();
	262
	263	ReadGlobalSettings();
	264
	265	// this order is important, connections need parsed objects to check
	266	// whether connections are ok or not. Objects may not be evaluated yet,
	267	// though, since this may require valid connections.
	268	ReadObjects();
	269	ReadConnections();
	270	}
	271
	272
	273	// ------------------------------------------------------------------------------------------------
	274	Document::~Document()
	275	{
	276	BOOST_FOREACH(ObjectMap::value_type& v, objects) {
	277	delete v.second;
	278	}
	279	}
	280
	281
	282	// ------------------------------------------------------------------------------------------------
	283	void Document::ReadHeader()
	284	{
	285	// read ID objects from "Objects" section
	286	const Scope& sc = parser.GetRootScope();
	287	const Element* const ehead = sc["FBXHeaderExtension"];
	288	if(!ehead \|\| !ehead->Compound()) {
	289	DOMError("no FBXHeaderExtension dictionary found");
	290	}
	291
	292	const Scope& shead = *ehead->Compound();
	293	fbxVersion = ParseTokenAsInt(GetRequiredToken(GetRequiredElement(shead,"FBXVersion",ehead),0));
	294
	295	// while we maye have some success with newer files, we don't support
	296	// the older 6.n fbx format
	297	if(fbxVersion < 7100) {
	298	DOMError("unsupported, old format version, supported are only FBX 2011, FBX 2012 and FBX 2013");
	299	}
	300	if(fbxVersion > 7300) {
	301	if(Settings().strictMode) {
	302	DOMError("unsupported, newer format version, supported are only FBX 2011, FBX 2012 and FBX 2013"
	303	" (turn off strict mode to try anyhow) ");
	304	}
	305	else {
	306	DOMWarning("unsupported, newer format version, supported are only FBX 2011, FBX 2012 and FBX 2013,"
	307	" trying to read it nevertheless");
	308	}
	309	}
	310
	311
	312	const Element* const ecreator = shead["Creator"];
	313	if(ecreator) {
	314	creator = ParseTokenAsString(GetRequiredToken(*ecreator,0));
	315	}
	316
	317	const Element* const etimestamp = shead["CreationTimeStamp"];
	318	if(etimestamp && etimestamp->Compound()) {
	319	const Scope& stimestamp = *etimestamp->Compound();
	320	creationTimeStamp[0] = ParseTokenAsInt(GetRequiredToken(GetRequiredElement(stimestamp,"Year"),0));
	321	creationTimeStamp[1] = ParseTokenAsInt(GetRequiredToken(GetRequiredElement(stimestamp,"Month"),0));
	322	creationTimeStamp[2] = ParseTokenAsInt(GetRequiredToken(GetRequiredElement(stimestamp,"Day"),0));
	323	creationTimeStamp[3] = ParseTokenAsInt(GetRequiredToken(GetRequiredElement(stimestamp,"Hour"),0));
	324	creationTimeStamp[4] = ParseTokenAsInt(GetRequiredToken(GetRequiredElement(stimestamp,"Minute"),0));
	325	creationTimeStamp[5] = ParseTokenAsInt(GetRequiredToken(GetRequiredElement(stimestamp,"Second"),0));
	326	creationTimeStamp[6] = ParseTokenAsInt(GetRequiredToken(GetRequiredElement(stimestamp,"Millisecond"),0));
	327	}
	328	}
	329
	330	// ------------------------------------------------------------------------------------------------
	331	void Document::ReadGlobalSettings()
	332	{
	333	const Scope& sc = parser.GetRootScope();
	334	const Element* const ehead = sc["GlobalSettings"];
	335	if(!ehead \|\| !ehead->Compound()) {
	336	DOMWarning("no GlobalSettings dictionary found");
	337
	338	globals.reset(new FileGlobalSettings(*this, boost::make_shared<const PropertyTable>()));
	339	return;
	340	}
	341
	342	boost::shared_ptr<const PropertyTable> props = GetPropertyTable(this, "", ehead, *ehead->Compound(), true);
	343
	344	if(!props) {
	345	DOMError("GlobalSettings dictionary contains no property table");
	346	}
	347
	348	globals.reset(new FileGlobalSettings(*this, props));
	349	}
	350
	351
	352	// ------------------------------------------------------------------------------------------------
	353	void Document::ReadObjects()
	354	{
	355	// read ID objects from "Objects" section
	356	const Scope& sc = parser.GetRootScope();
	357	const Element* const eobjects = sc["Objects"];
	358	if(!eobjects \|\| !eobjects->Compound()) {
	359	DOMError("no Objects dictionary found");
	360	}
	361
	362	// add a dummy entry to represent the Model::RootNode object (id 0),
	363	// which is only indirectly defined in the input file
	364	objects[0] = new LazyObject(0L, eobjects, this);
	365
	366	const Scope& sobjects = *eobjects->Compound();
	367	BOOST_FOREACH(const ElementMap::value_type& el, sobjects.Elements()) {
	368
	369	// extract ID
	370	const TokenList& tok = el.second->Tokens();
	371
	372	if (tok.empty()) {
	373	DOMError("expected ID after object key",el.second);
	374	}
	375
	376	const char* err;
	377
	378	const uint64_t id = ParseTokenAsID(*tok[0], err);
	379	if(err) {
	380	DOMError(err,el.second);
	381	}
	382
	383	// id=0 is normally implicit
	384	if(id == 0L) {
	385	DOMError("encountered object with implicitly defined id 0",el.second);
	386	}
	387
	388	if(objects.find(id) != objects.end()) {
	389	DOMWarning("encountered duplicate object id, ignoring first occurrence",el.second);
	390	}
	391
	392	objects[id] = new LazyObject(id, el.second, this);
	393
	394	// grab all animation stacks upfront since there is no listing of them
	395	if(!strcmp(el.first.c_str(),"AnimationStack")) {
	396	animationStacks.push_back(id);
	397	}
	398	}
	399	}
	400
	401
	402	// ------------------------------------------------------------------------------------------------
	403	void Document::ReadPropertyTemplates()
	404	{
	405	const Scope& sc = parser.GetRootScope();
	406	// read property templates from "Definitions" section
	407	const Element* const edefs = sc["Definitions"];
	408	if(!edefs \|\| !edefs->Compound()) {
	409	DOMWarning("no Definitions dictionary found");
	410	return;
	411	}
	412
	413	const Scope& sdefs = *edefs->Compound();
	414	const ElementCollection otypes = sdefs.GetCollection("ObjectType");
	415	for(ElementMap::const_iterator it = otypes.first; it != otypes.second; ++it) {
	416	const Element& el = (it).second;
	417	const Scope* sc = el.Compound();
	418	if(!sc) {
	419	DOMWarning("expected nested scope in ObjectType, ignoring",&el);
	420	continue;
	421	}
	422
	423	const TokenList& tok = el.Tokens();
	424	if(tok.empty()) {
	425	DOMWarning("expected name for ObjectType element, ignoring",&el);
	426	continue;
	427	}
	428
	429	const std::string& oname = ParseTokenAsString(*tok[0]);
	430
	431	const ElementCollection templs = sc->GetCollection("PropertyTemplate");
	432	for(ElementMap::const_iterator it = templs.first; it != templs.second; ++it) {
	433	const Element& el = (it).second;
	434	const Scope* sc = el.Compound();
	435	if(!sc) {
	436	DOMWarning("expected nested scope in PropertyTemplate, ignoring",&el);
	437	continue;
	438	}
	439
	440	const TokenList& tok = el.Tokens();
	441	if(tok.empty()) {
	442	DOMWarning("expected name for PropertyTemplate element, ignoring",&el);
	443	continue;
	444	}
	445
	446	const std::string& pname = ParseTokenAsString(*tok[0]);
	447
	448	const Element* Properties70 = (*sc)["Properties70"];
	449	if(Properties70) {
	450	boost::shared_ptr<const PropertyTable> props = boost::make_shared<const PropertyTable>(
	451	Properties70,boost::shared_ptr<const PropertyTable>(static_cast<const PropertyTable>(NULL))
	452	);
	453
	454	templates[oname+"."+pname] = props;
	455	}
	456	}
	457	}
	458	}
	459
	460
	461
	462	// ------------------------------------------------------------------------------------------------
	463	void Document::ReadConnections()
	464	{
	465	const Scope& sc = parser.GetRootScope();
	466	// read property templates from "Definitions" section
	467	const Element* const econns = sc["Connections"];
	468	if(!econns \|\| !econns->Compound()) {
	469	DOMError("no Connections dictionary found");
	470	}
	471
	472	uint64_t insertionOrder = 0l;
	473
	474	const Scope& sconns = *econns->Compound();
	475	const ElementCollection conns = sconns.GetCollection("C");
	476	for(ElementMap::const_iterator it = conns.first; it != conns.second; ++it) {
	477	const Element& el = (it).second;
	478	const std::string& type = ParseTokenAsString(GetRequiredToken(el,0));
	479	const uint64_t src = ParseTokenAsID(GetRequiredToken(el,1));
	480	const uint64_t dest = ParseTokenAsID(GetRequiredToken(el,2));
	481
	482	// OO = object-object connection
	483	// OP = object-property connection, in which case the destination property follows the object ID
	484	const std::string& prop = (type == "OP" ? ParseTokenAsString(GetRequiredToken(el,3)) : "");
	485
	486	if(objects.find(src) == objects.end()) {
	487	DOMWarning("source object for connection does not exist",&el);
	488	continue;
	489	}
	490
	491	// dest may be 0 (root node) but we added a dummy object before
	492	if(objects.find(dest) == objects.end()) {
	493	DOMWarning("destination object for connection does not exist",&el);
	494	continue;
	495	}
	496
	497	// add new connection
	498	const Connection* const c = new Connection(insertionOrder++,src,dest,prop,*this);
	499	src_connections.insert(ConnectionMap::value_type(src,c));
	500	dest_connections.insert(ConnectionMap::value_type(dest,c));
	501	}
	502	}
	503
	504
	505	// ------------------------------------------------------------------------------------------------
	506	const std::vector<const AnimationStack*>& Document::AnimationStacks() const
	507	{
	508	if (!animationStacksResolved.empty() \|\| !animationStacks.size()) {
	509	return animationStacksResolved;
	510	}
	511
	512	animationStacksResolved.reserve(animationStacks.size());
	513	BOOST_FOREACH(uint64_t id, animationStacks) {
	514	LazyObject* const lazy = GetObject(id);
	515	const AnimationStack* stack;
	516	if(!lazy \|\| !(stack = lazy->Get<AnimationStack>())) {
	517	DOMWarning("failed to read AnimationStack object");
	518	continue;
	519	}
	520	animationStacksResolved.push_back(stack);
	521	}
	522
	523	return animationStacksResolved;
	524	}
	525
	526
	527	// ------------------------------------------------------------------------------------------------
	528	LazyObject* Document::GetObject(uint64_t id) const
	529	{
	530	ObjectMap::const_iterator it = objects.find(id);
	531	return it == objects.end() ? NULL : (*it).second;
	532	}
	533
	534	#define MAX_CLASSNAMES 6
	535
	536	// ------------------------------------------------------------------------------------------------
	537	std::vector<const Connection*> Document::GetConnectionsSequenced(uint64_t id,
	538	const ConnectionMap& conns) const
	539	{
	540	std::vector<const Connection*> temp;
	541
	542	const std::pair<ConnectionMap::const_iterator,ConnectionMap::const_iterator> range =
	543	conns.equal_range(id);
	544
	545	temp.reserve(std::distance(range.first,range.second));
	546	for (ConnectionMap::const_iterator it = range.first; it != range.second; ++it) {
	547	temp.push_back((*it).second);
	548	}
	549
	550	std::sort(temp.begin(), temp.end(), std::mem_fun(&Connection::Compare));
	551
	552	return temp; // NRVO should handle this
	553	}
	554
	555
	556	// ------------------------------------------------------------------------------------------------
	557	std::vector<const Connection*> Document::GetConnectionsSequenced(uint64_t id, bool is_src,
	558	const ConnectionMap& conns,
	559	const char* const* classnames,
	560	size_t count) const
	561
	562	{
	563	ai_assert(classnames);
	564	ai_assert(count != 0 && count <= MAX_CLASSNAMES);
	565
	566	size_t lenghts[MAX_CLASSNAMES];
	567
	568	const size_t c = count;
	569	for (size_t i = 0; i < c; ++i) {
	570	lenghts[i] = strlen(classnames[i]);
	571	}
	572
	573	std::vector<const Connection*> temp;
	574
	575	const std::pair<ConnectionMap::const_iterator,ConnectionMap::const_iterator> range =
	576	conns.equal_range(id);
	577
	578	temp.reserve(std::distance(range.first,range.second));
	579	for (ConnectionMap::const_iterator it = range.first; it != range.second; ++it) {
	580	const Token& key = (is_src
	581	? (*it).second->LazyDestinationObject()
	582	: (*it).second->LazySourceObject()
	583	).GetElement().KeyToken();
	584
	585	const char* obtype = key.begin();
	586
	587	for (size_t i = 0; i < c; ++i) {
	588	ai_assert(classnames[i]);
	589	if(static_cast<size_t>(std::distance(key.begin(),key.end())) == lenghts[i] && !strncmp(classnames[i],obtype,lenghts[i])) {
	590	obtype = NULL;
	591	break;
	592	}
	593	}
	594
	595	if(obtype) {
	596	continue;
	597	}
	598
	599	temp.push_back((*it).second);
	600	}
	601
	602	std::sort(temp.begin(), temp.end(), std::mem_fun(&Connection::Compare));
	603	return temp; // NRVO should handle this
	604	}
	605
	606
	607	// ------------------------------------------------------------------------------------------------
	608	std::vector<const Connection*> Document::GetConnectionsBySourceSequenced(uint64_t source) const
	609	{
	610	return GetConnectionsSequenced(source, ConnectionsBySource());
	611	}
	612
	613
	614
	615	// ------------------------------------------------------------------------------------------------
	616	std::vector<const Connection*> Document::GetConnectionsBySourceSequenced(uint64_t dest,
	617	const char* classname) const
	618	{
	619	const char* arr[] = {classname};
	620	return GetConnectionsBySourceSequenced(dest, arr,1);
	621	}
	622
	623
	624
	625	// ------------------------------------------------------------------------------------------------
	626	std::vector<const Connection*> Document::GetConnectionsBySourceSequenced(uint64_t source,
	627	const char* const* classnames, size_t count) const
	628	{
	629	return GetConnectionsSequenced(source, true, ConnectionsBySource(),classnames, count);
	630	}
	631
	632
	633	// ------------------------------------------------------------------------------------------------
	634	std::vector<const Connection*> Document::GetConnectionsByDestinationSequenced(uint64_t dest,
	635	const char* classname) const
	636	{
	637	const char* arr[] = {classname};
	638	return GetConnectionsByDestinationSequenced(dest, arr,1);
	639	}
	640
	641
	642	// ------------------------------------------------------------------------------------------------
	643	std::vector<const Connection*> Document::GetConnectionsByDestinationSequenced(uint64_t dest) const
	644	{
	645	return GetConnectionsSequenced(dest, ConnectionsByDestination());
	646	}
	647
	648
	649	// ------------------------------------------------------------------------------------------------
	650	std::vector<const Connection*> Document::GetConnectionsByDestinationSequenced(uint64_t dest,
	651	const char* const* classnames, size_t count) const
	652
	653	{
	654	return GetConnectionsSequenced(dest, false, ConnectionsByDestination(),classnames, count);
	655	}
	656
	657
	658	// ------------------------------------------------------------------------------------------------
	659	Connection::Connection(uint64_t insertionOrder, uint64_t src, uint64_t dest, const std::string& prop,
	660	const Document& doc)
	661
	662	: insertionOrder(insertionOrder)
	663	, prop(prop)
	664	, src(src)
	665	, dest(dest)
	666	, doc(doc)
	667	{
	668	ai_assert(doc.Objects().find(src) != doc.Objects().end());
	669	// dest may be 0 (root node)
	670	ai_assert(!dest \|\| doc.Objects().find(dest) != doc.Objects().end());
	671	}
	672
	673
	674	// ------------------------------------------------------------------------------------------------
	675	Connection::~Connection()
	676	{
	677
	678	}
	679
	680
	681	// ------------------------------------------------------------------------------------------------
	682	LazyObject& Connection::LazySourceObject() const
	683	{
	684	LazyObject* const lazy = doc.GetObject(src);
	685	ai_assert(lazy);
	686	return *lazy;
	687	}
	688
	689
	690	// ------------------------------------------------------------------------------------------------
	691	LazyObject& Connection::LazyDestinationObject() const
	692	{
	693	LazyObject* const lazy = doc.GetObject(dest);
	694	ai_assert(lazy);
	695	return *lazy;
	696	}
	697
	698
	699	// ------------------------------------------------------------------------------------------------
	700	const Object* Connection::SourceObject() const
	701	{
	702	LazyObject* const lazy = doc.GetObject(src);
	703	ai_assert(lazy);
	704	return lazy->Get();
	705	}
	706
	707
	708	// ------------------------------------------------------------------------------------------------
	709	const Object* Connection::DestinationObject() const
	710	{
	711	LazyObject* const lazy = doc.GetObject(dest);
	712	ai_assert(lazy);
	713	return lazy->Get();
	714	}
	715
	716	} // !FBX
	717	} // !Assimp
	718
	719	#endif
	720

+1393

-0

code/FBXDocument.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXDocument.h
	41	* @brief FBX DOM
	42	*/
	43	#ifndef INCLUDED_AI_FBX_DOCUMENT_H
	44	#define INCLUDED_AI_FBX_DOCUMENT_H
	45
	46	#include <vector>
	47	#include <map>
	48	#include <string>
	49
	50	#include "FBXProperties.h"
	51
	52	namespace Assimp {
	53	namespace FBX {
	54
	55	class Parser;
	56	class Object;
	57	struct ImportSettings;
	58
	59	class PropertyTable;
	60	class Document;
	61	class Material;
	62	class Geometry;
	63
	64	class AnimationCurve;
	65	class AnimationCurveNode;
	66	class AnimationLayer;
	67	class AnimationStack;
	68
	69	class Skin;
	70	class Cluster;
	71
	72
	73	/** Represents a delay-parsed FBX objects. Many objects in the scene
	74	* are not needed by assimp, so it makes no sense to parse them
	75	* upfront. */
	76	class LazyObject
	77	{
	78	public:
	79
	80	LazyObject(uint64_t id, const Element& element, const Document& doc);
	81	~LazyObject();
	82
	83	public:
	84
	85	const Object* Get(bool dieOnError = false);
	86
	87	template <typename T>
	88	const T* Get(bool dieOnError = false) {
	89	const Object* const ob = Get(dieOnError);
	90	return ob ? dynamic_cast<const T*>(ob) : NULL;
	91	}
	92
	93	uint64_t ID() const {
	94	return id;
	95	}
	96
	97	bool IsBeingConstructed() const {
	98	return (flags & BEING_CONSTRUCTED) != 0;
	99	}
	100
	101	bool FailedToConstruct() const {
	102	return (flags & FAILED_TO_CONSTRUCT) != 0;
	103	}
	104
	105	const Element& GetElement() const {
	106	return element;
	107	}
	108
	109	const Document& GetDocument() const {
	110	return doc;
	111	}
	112
	113	private:
	114
	115	const Document& doc;
	116	const Element& element;
	117	boost::scoped_ptr<const Object> object;
	118
	119	const uint64_t id;
	120
	121	enum Flags {
	122	BEING_CONSTRUCTED = 0x1,
	123	FAILED_TO_CONSTRUCT = 0x2
	124	};
	125
	126	unsigned int flags;
	127	};
	128
	129
	130
	131	/** Base class for in-memory (DOM) representations of FBX objects */
	132	class Object
	133	{
	134	public:
	135
	136	Object(uint64_t id, const Element& element, const std::string& name);
	137	virtual ~Object();
	138
	139	public:
	140
	141	const Element& SourceElement() const {
	142	return element;
	143	}
	144
	145	const std::string& Name() const {
	146	return name;
	147	}
	148
	149	uint64_t ID() const {
	150	return id;
	151	}
	152
	153	protected:
	154	const Element& element;
	155	const std::string name;
	156	const uint64_t id;
	157	};
	158
	159
	160
	161	/** DOM class for generic FBX NoteAttribute blocks. NoteAttribute's just hold a property table,
	162	* fixed members are added by deriving classes. */
	163	class NodeAttribute : public Object
	164	{
	165	public:
	166
	167	NodeAttribute(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	168	~NodeAttribute();
	169
	170	public:
	171
	172	const PropertyTable& Props() const {
	173	ai_assert(props.get());
	174	return *props.get();
	175	}
	176
	177	private:
	178
	179	boost::shared_ptr<const PropertyTable> props;
	180	};
	181
	182
	183	/** DOM base class for FBX camera settings attached to a node */
	184	class CameraSwitcher : public NodeAttribute
	185	{
	186	public:
	187
	188	CameraSwitcher(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	189	~CameraSwitcher();
	190
	191	public:
	192
	193	int CameraID() const {
	194	return cameraId;
	195	}
	196
	197	const std::string& CameraName() const {
	198	return cameraName;
	199	}
	200
	201
	202	const std::string& CameraIndexName() const {
	203	return cameraIndexName;
	204	}
	205
	206	private:
	207
	208	int cameraId;
	209	std::string cameraName;
	210	std::string cameraIndexName;
	211	};
	212
	213
	214	#define fbx_stringize(a) #a
	215
	216	#define fbx_simple_property(name, type, default_value) \
	217	type name() const { \
	218	return PropertyGet<type>(Props(), fbx_stringize(name), (default_value)); \
	219	}
	220
	221	// XXX improve logging
	222	#define fbx_simple_enum_property(name, type, default_value) \
	223	type name() const { \
	224	const int ival = PropertyGet<int>(Props(), fbx_stringize(name), static_cast<int>(default_value)); \
	225	if (ival < 0 \|\| ival >= AI_CONCAT(type, _MAX)) { \
	226	ai_assert(static_cast<int>(default_value) >= 0 && static_cast<int>(default_value) < AI_CONCAT(type, _MAX)); \
	227	return static_cast<type>(default_value); \
	228	} \
	229	return static_cast<type>(ival); \
	230	}
	231
	232
	233
	234	/** DOM base class for FBX cameras attached to a node */
	235	class Camera : public NodeAttribute
	236	{
	237	public:
	238
	239	Camera(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	240	~Camera();
	241
	242	public:
	243
	244	fbx_simple_property(Position, aiVector3D, aiVector3D(0,0,0));
	245	fbx_simple_property(UpVector, aiVector3D, aiVector3D(0,1,0));
	246	fbx_simple_property(InterestPosition, aiVector3D, aiVector3D(0,0,0));
	247
	248	fbx_simple_property(AspectWidth, float, 1.0f);
	249	fbx_simple_property(AspectHeight, float, 1.0f);
	250	fbx_simple_property(FilmWidth, float, 1.0f);
	251	fbx_simple_property(FilmHeight, float, 1.0f);
	252
	253	fbx_simple_property(FilmAspectRatio, float, 1.0f);
	254	fbx_simple_property(ApertureMode, int, 0);
	255
	256	fbx_simple_property(FieldOfView, float, 1.0f);
	257	fbx_simple_property(FocalLength, float, 1.0f);
	258
	259	private:
	260	};
	261
	262
	263	/** DOM base class for FBX null markers attached to a node */
	264	class Null : public NodeAttribute
	265	{
	266	public:
	267
	268	Null(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	269	~Null();
	270	};
	271
	272
	273	/** DOM base class for FBX limb node markers attached to a node */
	274	class LimbNode : public NodeAttribute
	275	{
	276	public:
	277
	278	LimbNode(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	279	~LimbNode();
	280	};
	281
	282
	283	/** DOM base class for FBX lights attached to a node */
	284	class Light : public NodeAttribute
	285	{
	286	public:
	287
	288	Light(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	289	~Light();
	290
	291	public:
	292
	293	enum Type
	294	{
	295	Type_Point,
	296	Type_Directional,
	297	Type_Spot,
	298	Type_Area,
	299	Type_Volume,
	300
	301	Type_MAX // end-of-enum sentinel
	302	};
	303
	304	enum Decay
	305	{
	306	Decay_None,
	307	Decay_Linear,
	308	Decay_Quadratic,
	309	Decay_Cubic,
	310
	311	Decay_MAX // end-of-enum sentinel
	312	};
	313
	314	public:
	315
	316	fbx_simple_property(Color, aiVector3D, aiVector3D(1,1,1));
	317	fbx_simple_enum_property(LightType, Type, 0);
	318	fbx_simple_property(CastLightOnObject, bool, false);
	319	fbx_simple_property(DrawVolumetricLight, bool, true);
	320	fbx_simple_property(DrawGroundProjection, bool, true);
	321	fbx_simple_property(DrawFrontFacingVolumetricLight, bool, false);
	322	fbx_simple_property(Intensity, float, 1.0f);
	323	fbx_simple_property(InnerAngle, float, 0.0f);
	324	fbx_simple_property(OuterAngle, float, 45.0f);
	325	fbx_simple_property(Fog, int, 50);
	326	fbx_simple_enum_property(DecayType, Decay, 0);
	327	fbx_simple_property(DecayStart, int, 0);
	328	fbx_simple_property(FileName, std::string, "");
	329
	330	fbx_simple_property(EnableNearAttenuation, bool, false);
	331	fbx_simple_property(NearAttenuationStart, float, 0.0f);
	332	fbx_simple_property(NearAttenuationEnd, float, 0.0f);
	333	fbx_simple_property(EnableFarAttenuation, bool, false);
	334	fbx_simple_property(FarAttenuationStart, float, 0.0f);
	335	fbx_simple_property(FarAttenuationEnd, float, 0.0f);
	336
	337	fbx_simple_property(CastShadows, bool, true);
	338	fbx_simple_property(ShadowColor, aiVector3D, aiVector3D(0,0,0));
	339
	340	fbx_simple_property(AreaLightShape, int, 0);
	341
	342	fbx_simple_property(LeftBarnDoor, float, 20.0f);
	343	fbx_simple_property(RightBarnDoor, float, 20.0f);
	344	fbx_simple_property(TopBarnDoor, float, 20.0f);
	345	fbx_simple_property(BottomBarnDoor, float, 20.0f);
	346	fbx_simple_property(EnableBarnDoor, bool, true);
	347
	348
	349	private:
	350	};
	351
	352
	353	/** DOM base class for FBX models (even though its semantics are more "node" than "model" */
	354	class Model : public Object
	355	{
	356	public:
	357
	358	Model(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	359	~Model();
	360
	361	public:
	362
	363	enum RotOrder
	364	{
	365	RotOrder_EulerXYZ = 0,
	366	RotOrder_EulerXZY,
	367	RotOrder_EulerYZX,
	368	RotOrder_EulerYXZ,
	369	RotOrder_EulerZXY,
	370	RotOrder_EulerZYX,
	371
	372	RotOrder_SphericXYZ,
	373
	374	RotOrder_MAX // end-of-enum sentinel
	375	};
	376
	377
	378	enum TransformInheritance
	379	{
	380	TransformInheritance_RrSs = 0,
	381	TransformInheritance_RSrs,
	382	TransformInheritance_Rrs,
	383
	384	TransformInheritance_MAX // end-of-enum sentinel
	385	};
	386
	387	public:
	388
	389	fbx_simple_property(QuaternionInterpolate, int, 0);
	390
	391	fbx_simple_property(RotationOffset, aiVector3D, aiVector3D());
	392	fbx_simple_property(RotationPivot, aiVector3D, aiVector3D());
	393	fbx_simple_property(ScalingOffset, aiVector3D, aiVector3D());
	394	fbx_simple_property(ScalingPivot, aiVector3D, aiVector3D());
	395	fbx_simple_property(TranslationActive, bool, false);
	396
	397	fbx_simple_property(TranslationMin, aiVector3D, aiVector3D());
	398	fbx_simple_property(TranslationMax, aiVector3D, aiVector3D());
	399
	400	fbx_simple_property(TranslationMinX, bool, false);
	401	fbx_simple_property(TranslationMaxX, bool, false);
	402	fbx_simple_property(TranslationMinY, bool, false);
	403	fbx_simple_property(TranslationMaxY, bool, false);
	404	fbx_simple_property(TranslationMinZ, bool, false);
	405	fbx_simple_property(TranslationMaxZ, bool, false);
	406
	407	fbx_simple_enum_property(RotationOrder, RotOrder, 0);
	408	fbx_simple_property(RotationSpaceForLimitOnly, bool, false);
	409	fbx_simple_property(RotationStiffnessX, float, 0.0f);
	410	fbx_simple_property(RotationStiffnessY, float, 0.0f);
	411	fbx_simple_property(RotationStiffnessZ, float, 0.0f);
	412	fbx_simple_property(AxisLen, float, 0.0f);
	413
	414	fbx_simple_property(PreRotation, aiVector3D, aiVector3D());
	415	fbx_simple_property(PostRotation, aiVector3D, aiVector3D());
	416	fbx_simple_property(RotationActive, bool, false);
	417
	418	fbx_simple_property(RotationMin, aiVector3D, aiVector3D());
	419	fbx_simple_property(RotationMax, aiVector3D, aiVector3D());
	420
	421	fbx_simple_property(RotationMinX, bool, false);
	422	fbx_simple_property(RotationMaxX, bool, false);
	423	fbx_simple_property(RotationMinY, bool, false);
	424	fbx_simple_property(RotationMaxY, bool, false);
	425	fbx_simple_property(RotationMinZ, bool, false);
	426	fbx_simple_property(RotationMaxZ, bool, false);
	427	fbx_simple_enum_property(InheritType, TransformInheritance, 0);
	428
	429	fbx_simple_property(ScalingActive, bool, false);
	430	fbx_simple_property(ScalingMin, aiVector3D, aiVector3D());
	431	fbx_simple_property(ScalingMax, aiVector3D, aiVector3D(1.f,1.f,1.f));
	432	fbx_simple_property(ScalingMinX, bool, false);
	433	fbx_simple_property(ScalingMaxX, bool, false);
	434	fbx_simple_property(ScalingMinY, bool, false);
	435	fbx_simple_property(ScalingMaxY, bool, false);
	436	fbx_simple_property(ScalingMinZ, bool, false);
	437	fbx_simple_property(ScalingMaxZ, bool, false);
	438
	439	fbx_simple_property(GeometricTranslation, aiVector3D, aiVector3D());
	440	fbx_simple_property(GeometricRotation, aiVector3D, aiVector3D());
	441	fbx_simple_property(GeometricScaling, aiVector3D, aiVector3D(1.f, 1.f, 1.f));
	442
	443	fbx_simple_property(MinDampRangeX, float, 0.0f);
	444	fbx_simple_property(MinDampRangeY, float, 0.0f);
	445	fbx_simple_property(MinDampRangeZ, float, 0.0f);
	446	fbx_simple_property(MaxDampRangeX, float, 0.0f);
	447	fbx_simple_property(MaxDampRangeY, float, 0.0f);
	448	fbx_simple_property(MaxDampRangeZ, float, 0.0f);
	449
	450	fbx_simple_property(MinDampStrengthX, float, 0.0f);
	451	fbx_simple_property(MinDampStrengthY, float, 0.0f);
	452	fbx_simple_property(MinDampStrengthZ, float, 0.0f);
	453	fbx_simple_property(MaxDampStrengthX, float, 0.0f);
	454	fbx_simple_property(MaxDampStrengthY, float, 0.0f);
	455	fbx_simple_property(MaxDampStrengthZ, float, 0.0f);
	456
	457	fbx_simple_property(PreferredAngleX, float, 0.0f);
	458	fbx_simple_property(PreferredAngleY, float, 0.0f);
	459	fbx_simple_property(PreferredAngleZ, float, 0.0f);
	460
	461	fbx_simple_property(Show, bool, true);
	462	fbx_simple_property(LODBox, bool, false);
	463	fbx_simple_property(Freeze, bool, false);
	464
	465	public:
	466
	467	const std::string& Shading() const {
	468	return shading;
	469	}
	470
	471	const std::string& Culling() const {
	472	return culling;
	473	}
	474
	475	const PropertyTable& Props() const {
	476	ai_assert(props.get());
	477	return *props.get();
	478	}
	479
	480	/** Get material links */
	481	const std::vector<const Material*>& GetMaterials() const {
	482	return materials;
	483	}
	484
	485
	486	/** Get geometry links */
	487	const std::vector<const Geometry*>& GetGeometry() const {
	488	return geometry;
	489	}
	490
	491
	492	/** Get node attachments */
	493	const std::vector<const NodeAttribute*>& GetAttributes() const {
	494	return attributes;
	495	}
	496
	497	public:
	498
	499	/** convenience method to check if the node has a Null node marker */
	500	bool IsNull() const;
	501
	502
	503	private:
	504
	505	void ResolveLinks(const Element& element, const Document& doc);
	506
	507	private:
	508
	509	std::vector<const Material*> materials;
	510	std::vector<const Geometry*> geometry;
	511	std::vector<const NodeAttribute*> attributes;
	512
	513	std::string shading;
	514	std::string culling;
	515	boost::shared_ptr<const PropertyTable> props;
	516	};
	517
	518	/** DOM class for generic FBX textures */
	519	class Texture : public Object
	520	{
	521	public:
	522
	523	Texture(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	524	~Texture();
	525
	526	public:
	527
	528	const std::string& Type() const {
	529	return type;
	530	}
	531
	532	const std::string& FileName() const {
	533	return fileName;
	534	}
	535
	536	const std::string& RelativeFilename() const {
	537	return relativeFileName;
	538	}
	539
	540	const std::string& AlphaSource() const {
	541	return alphaSource;
	542	}
	543
	544	const aiVector2D& UVTranslation() const {
	545	return uvTrans;
	546	}
	547
	548	const aiVector2D& UVScaling() const {
	549	return uvScaling;
	550	}
	551
	552	const PropertyTable& Props() const {
	553	ai_assert(props.get());
	554	return *props.get();
	555	}
	556
	557	// return a 4-tuple
	558	const unsigned int* Crop() const {
	559	return crop;
	560	}
	561
	562	private:
	563
	564	aiVector2D uvTrans;
	565	aiVector2D uvScaling;
	566
	567	std::string type;
	568	std::string relativeFileName;
	569	std::string fileName;
	570	std::string alphaSource;
	571	boost::shared_ptr<const PropertyTable> props;
	572
	573	unsigned int crop[4];
	574	};
	575
	576	/** DOM class for layered FBX textures */
	577	class LayeredTexture : public Object
	578	{
	579	public:
	580
	581	LayeredTexture(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	582	~LayeredTexture();
	583
	584	//Can only be called after construction of the layered texture object due to construction flag.
	585	void fillTexture(const Document& doc);
	586
	587	enum BlendMode
	588	{
	589	BlendMode_Translucent,
	590	BlendMode_Additive,
	591	BlendMode_Modulate,
	592	BlendMode_Modulate2,
	593	BlendMode_Over,
	594	BlendMode_Normal,
	595	BlendMode_Dissolve,
	596	BlendMode_Darken,
	597	BlendMode_ColorBurn,
	598	BlendMode_LinearBurn,
	599	BlendMode_DarkerColor,
	600	BlendMode_Lighten,
	601	BlendMode_Screen,
	602	BlendMode_ColorDodge,
	603	BlendMode_LinearDodge,
	604	BlendMode_LighterColor,
	605	BlendMode_SoftLight,
	606	BlendMode_HardLight,
	607	BlendMode_VividLight,
	608	BlendMode_LinearLight,
	609	BlendMode_PinLight,
	610	BlendMode_HardMix,
	611	BlendMode_Difference,
	612	BlendMode_Exclusion,
	613	BlendMode_Subtract,
	614	BlendMode_Divide,
	615	BlendMode_Hue,
	616	BlendMode_Saturation,
	617	BlendMode_Color,
	618	BlendMode_Luminosity,
	619	BlendMode_Overlay,
	620	BlendMode_BlendModeCount
	621	};
	622
	623	const Texture* getTexture() const
	624	{
	625	return texture;
	626	}
	627	BlendMode GetBlendMode()
	628	{
	629	return blendMode;
	630	}
	631	float Alpha()
	632	{
	633	return alpha;
	634	}
	635	private:
	636	const Texture* texture;
	637	BlendMode blendMode;
	638	float alpha;
	639	};
	640
	641	typedef std::fbx_unordered_map<std::string, const Texture*> TextureMap;
	642	typedef std::fbx_unordered_map<std::string, const LayeredTexture*> LayeredTextureMap;
	643
	644
	645	/** DOM class for generic FBX materials */
	646	class Material : public Object
	647	{
	648	public:
	649
	650	Material(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	651	~Material();
	652
	653	public:
	654
	655	const std::string& GetShadingModel() const {
	656	return shading;
	657	}
	658
	659	bool IsMultilayer() const {
	660	return multilayer;
	661	}
	662
	663	const PropertyTable& Props() const {
	664	ai_assert(props.get());
	665	return *props.get();
	666	}
	667
	668	const TextureMap& Textures() const {
	669	return textures;
	670	}
	671
	672	const LayeredTextureMap& LayeredTextures() const {
	673	return layeredTextures;
	674	}
	675
	676	private:
	677
	678	std::string shading;
	679	bool multilayer;
	680	boost::shared_ptr<const PropertyTable> props;
	681
	682	TextureMap textures;
	683	LayeredTextureMap layeredTextures;
	684	};
	685
	686
	687	/** DOM base class for all kinds of FBX geometry */
	688	class Geometry : public Object
	689	{
	690	public:
	691
	692	Geometry(uint64_t id, const Element& element, const std::string& name, const Document& doc);
	693	~Geometry();
	694
	695	public:
	696
	697	/** Get the Skin attached to this geometry or NULL */
	698	const Skin* const DeformerSkin() const {
	699	return skin;
	700	}
	701
	702	private:
	703
	704	const Skin* skin;
	705	};
	706
	707
	708	typedef std::vector<int> MatIndexArray;
	709
	710
	711	/** DOM class for FBX geometry of type "Mesh"*/
	712	class MeshGeometry : public Geometry
	713	{
	714
	715	public:
	716
	717	MeshGeometry(uint64_t id, const Element& element, const std::string& name, const Document& doc);
	718	~MeshGeometry();
	719
	720	public:
	721
	722	/** Get a list of all vertex points, non-unique*/
	723	const std::vector<aiVector3D>& GetVertices() const {
	724	return vertices;
	725	}
	726
	727	/** Get a list of all vertex normals or an empty array if
	728	* no normals are specified. */
	729	const std::vector<aiVector3D>& GetNormals() const {
	730	return normals;
	731	}
	732
	733	/** Get a list of all vertex tangents or an empty array
	734	* if no tangents are specified */
	735	const std::vector<aiVector3D>& GetTangents() const {
	736	return tangents;
	737	}
	738
	739	/** Get a list of all vertex binormals or an empty array
	740	* if no binormals are specified */
	741	const std::vector<aiVector3D>& GetBinormals() const {
	742	return binormals;
	743	}
	744
	745	/** Return list of faces - each entry denotes a face and specifies
	746	* how many vertices it has. Vertices are taken from the
	747	* vertex data arrays in sequential order. */
	748	const std::vector<unsigned int>& GetFaceIndexCounts() const {
	749	return faces;
	750	}
	751
	752	/** Get a UV coordinate slot, returns an empty array if
	753	* the requested slot does not exist. */
	754	const std::vector<aiVector2D>& GetTextureCoords(unsigned int index) const {
	755	static const std::vector<aiVector2D> empty;
	756	return index >= AI_MAX_NUMBER_OF_TEXTURECOORDS ? empty : uvs[index];
	757	}
	758
	759
	760	/** Get a UV coordinate slot, returns an empty array if
	761	* the requested slot does not exist. */
	762	std::string GetTextureCoordChannelName(unsigned int index) const {
	763	return index >= AI_MAX_NUMBER_OF_TEXTURECOORDS ? "" : uvNames[index];
	764	}
	765
	766	/** Get a vertex color coordinate slot, returns an empty array if
	767	* the requested slot does not exist. */
	768	const std::vector<aiColor4D>& GetVertexColors(unsigned int index) const {
	769	static const std::vector<aiColor4D> empty;
	770	return index >= AI_MAX_NUMBER_OF_COLOR_SETS ? empty : colors[index];
	771	}
	772
	773
	774	/** Get per-face-vertex material assignments */
	775	const MatIndexArray& GetMaterialIndices() const {
	776	return materials;
	777	}
	778
	779
	780	/** Convert from a fbx file vertex index (for example from a #Cluster weight) or NULL
	781	* if the vertex index is not valid. */
	782	const unsigned int* ToOutputVertexIndex(unsigned int in_index, unsigned int& count) const {
	783	if(in_index >= mapping_counts.size()) {
	784	return NULL;
	785	}
	786
	787	ai_assert(mapping_counts.size() == mapping_offsets.size());
	788	count = mapping_counts[in_index];
	789
	790	ai_assert(count != 0);
	791	ai_assert(mapping_offsets[in_index] + count <= mappings.size());
	792
	793	return &mappings[mapping_offsets[in_index]];
	794	}
	795
	796
	797	/** Determine the face to which a particular output vertex index belongs.
	798	* This mapping is always unique. */
	799	unsigned int FaceForVertexIndex(unsigned int in_index) const {
	800	ai_assert(in_index < vertices.size());
	801
	802	// in the current conversion pattern this will only be needed if
	803	// weights are present, so no need to always pre-compute this table
	804	if (facesVertexStartIndices.empty()) {
	805	facesVertexStartIndices.resize(faces.size() + 1, 0);
	806
	807	std::partial_sum(faces.begin(), faces.end(), facesVertexStartIndices.begin() + 1);
	808	facesVertexStartIndices.pop_back();
	809	}
	810
	811	ai_assert(facesVertexStartIndices.size() == faces.size());
	812	const std::vector<unsigned int>::iterator it = std::upper_bound(
	813	facesVertexStartIndices.begin(),
	814	facesVertexStartIndices.end(),
	815	in_index
	816	);
	817
	818	return static_cast<unsigned int>(std::distance(facesVertexStartIndices.begin(), it - 1));
	819	}
	820
	821	public:
	822
	823	private:
	824
	825	void ReadLayer(const Scope& layer);
	826	void ReadLayerElement(const Scope& layerElement);
	827	void ReadVertexData(const std::string& type, int index, const Scope& source);
	828
	829	void ReadVertexDataUV(std::vector<aiVector2D>& uv_out, const Scope& source,
	830	const std::string& MappingInformationType,
	831	const std::string& ReferenceInformationType);
	832
	833	void ReadVertexDataNormals(std::vector<aiVector3D>& normals_out, const Scope& source,
	834	const std::string& MappingInformationType,
	835	const std::string& ReferenceInformationType);
	836
	837	void ReadVertexDataColors(std::vector<aiColor4D>& colors_out, const Scope& source,
	838	const std::string& MappingInformationType,
	839	const std::string& ReferenceInformationType);
	840
	841	void ReadVertexDataTangents(std::vector<aiVector3D>& tangents_out, const Scope& source,
	842	const std::string& MappingInformationType,
	843	const std::string& ReferenceInformationType);
	844
	845	void ReadVertexDataBinormals(std::vector<aiVector3D>& binormals_out, const Scope& source,
	846	const std::string& MappingInformationType,
	847	const std::string& ReferenceInformationType);
	848
	849	void ReadVertexDataMaterials(MatIndexArray& materials_out, const Scope& source,
	850	const std::string& MappingInformationType,
	851	const std::string& ReferenceInformationType);
	852
	853	private:
	854
	855	// cached data arrays
	856	MatIndexArray materials;
	857	std::vector<aiVector3D> vertices;
	858	std::vector<unsigned int> faces;
	859	mutable std::vector<unsigned int> facesVertexStartIndices;
	860	std::vector<aiVector3D> tangents;
	861	std::vector<aiVector3D> binormals;
	862	std::vector<aiVector3D> normals;
	863
	864	std::string uvNames[AI_MAX_NUMBER_OF_TEXTURECOORDS];
	865	std::vector<aiVector2D> uvs[AI_MAX_NUMBER_OF_TEXTURECOORDS];
	866	std::vector<aiColor4D> colors[AI_MAX_NUMBER_OF_COLOR_SETS];
	867
	868	std::vector<unsigned int> mapping_counts;
	869	std::vector<unsigned int> mapping_offsets;
	870	std::vector<unsigned int> mappings;
	871	};
	872
	873	typedef std::vector<uint64_t> KeyTimeList;
	874	typedef std::vector<float> KeyValueList;
	875
	876	/** Represents a FBX animation curve (i.e. a 1-dimensional set of keyframes and values therefor) */
	877	class AnimationCurve : public Object
	878	{
	879	public:
	880
	881	AnimationCurve(uint64_t id, const Element& element, const std::string& name, const Document& doc);
	882	~AnimationCurve();
	883
	884	public:
	885
	886	/** get list of keyframe positions (time).
	887	* Invariant: \|GetKeys()\| > 0 */
	888	const KeyTimeList& GetKeys() const {
	889	return keys;
	890	}
	891
	892
	893	/** get list of keyframe values.
	894	* Invariant: \|GetKeys()\| == \|GetValues()\| && \|GetKeys()\| > 0*/
	895	const KeyValueList& GetValues() const {
	896	return values;
	897	}
	898
	899
	900	const std::vector<float>& GetAttributes() const {
	901	return attributes;
	902	}
	903
	904	const std::vector<unsigned int>& GetFlags() const {
	905	return flags;
	906	}
	907
	908	private:
	909
	910	KeyTimeList keys;
	911	KeyValueList values;
	912	std::vector<float> attributes;
	913	std::vector<unsigned int> flags;
	914	};
	915
	916	// property-name -> animation curve
	917	typedef std::map<std::string, const AnimationCurve*> AnimationCurveMap;
	918
	919
	920	/** Represents a FBX animation curve (i.e. a mapping from single animation curves to nodes) */
	921	class AnimationCurveNode : public Object
	922	{
	923	public:
	924
	925	/* the optional whitelist specifies a list of property names for which the caller
	926	wants animations for. If the curve node does not match one of these, std::range_error
	927	will be thrown. */
	928	AnimationCurveNode(uint64_t id, const Element& element, const std::string& name, const Document& doc,
	929	const char* const * target_prop_whitelist = NULL, size_t whitelist_size = 0);
	930
	931	~AnimationCurveNode();
	932
	933	public:
	934
	935	const PropertyTable& Props() const {
	936	ai_assert(props.get());
	937	return *props.get();
	938	}
	939
	940
	941	const AnimationCurveMap& Curves() const;
	942
	943	/** Object the curve is assigned to, this can be NULL if the
	944	* target object has no DOM representation or could not
	945	* be read for other reasons.*/
	946	const Object* Target() const {
	947	return target;
	948	}
	949
	950	const Model* TargetAsModel() const {
	951	return dynamic_cast<const Model*>(target);
	952	}
	953
	954	const NodeAttribute* TargetAsNodeAttribute() const {
	955	return dynamic_cast<const NodeAttribute*>(target);
	956	}
	957
	958	/** Property of Target() that is being animated*/
	959	const std::string& TargetProperty() const {
	960	return prop;
	961	}
	962
	963	private:
	964
	965	const Object* target;
	966	boost::shared_ptr<const PropertyTable> props;
	967	mutable AnimationCurveMap curves;
	968
	969	std::string prop;
	970	const Document& doc;
	971	};
	972
	973	typedef std::vector<const AnimationCurveNode*> AnimationCurveNodeList;
	974
	975
	976	/** Represents a FBX animation layer (i.e. a list of node animations) */
	977	class AnimationLayer : public Object
	978	{
	979	public:
	980
	981
	982	AnimationLayer(uint64_t id, const Element& element, const std::string& name, const Document& doc);
	983	~AnimationLayer();
	984
	985	public:
	986
	987	const PropertyTable& Props() const {
	988	ai_assert(props.get());
	989	return *props.get();
	990	}
	991
	992	/* the optional whitelist specifies a list of property names for which the caller
	993	wants animations for. Curves not matching this list will not be added to the
	994	animation layer. */
	995	AnimationCurveNodeList Nodes(const char* const * target_prop_whitelist = NULL, size_t whitelist_size = 0) const;
	996
	997	private:
	998
	999	boost::shared_ptr<const PropertyTable> props;
	1000	const Document& doc;
	1001	};
	1002
	1003
	1004	typedef std::vector<const AnimationLayer*> AnimationLayerList;
	1005
	1006
	1007	/** Represents a FBX animation stack (i.e. a list of animation layers) */
	1008	class AnimationStack : public Object
	1009	{
	1010	public:
	1011
	1012	AnimationStack(uint64_t id, const Element& element, const std::string& name, const Document& doc);
	1013	~AnimationStack();
	1014
	1015	public:
	1016
	1017	fbx_simple_property(LocalStart, uint64_t, 0L);
	1018	fbx_simple_property(LocalStop, uint64_t, 0L);
	1019	fbx_simple_property(ReferenceStart, uint64_t, 0L);
	1020	fbx_simple_property(ReferenceStop, uint64_t, 0L);
	1021
	1022
	1023
	1024	const PropertyTable& Props() const {
	1025	ai_assert(props.get());
	1026	return *props.get();
	1027	}
	1028
	1029
	1030	const AnimationLayerList& Layers() const {
	1031	return layers;
	1032	}
	1033
	1034	private:
	1035
	1036	boost::shared_ptr<const PropertyTable> props;
	1037	AnimationLayerList layers;
	1038	};
	1039
	1040
	1041	/** DOM class for deformers */
	1042	class Deformer : public Object
	1043	{
	1044	public:
	1045
	1046	Deformer(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	1047	~Deformer();
	1048
	1049	public:
	1050
	1051	const PropertyTable& Props() const {
	1052	ai_assert(props.get());
	1053	return *props.get();
	1054	}
	1055
	1056	private:
	1057
	1058	boost::shared_ptr<const PropertyTable> props;
	1059	};
	1060
	1061	typedef std::vector<float> WeightArray;
	1062	typedef std::vector<unsigned int> WeightIndexArray;
	1063
	1064
	1065	/** DOM class for skin deformer clusters (aka subdeformers) */
	1066	class Cluster : public Deformer
	1067	{
	1068	public:
	1069
	1070	Cluster(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	1071	~Cluster();
	1072
	1073	public:
	1074
	1075	/** get the list of deformer weights associated with this cluster.
	1076	* Use #GetIndices() to get the associated vertices. Both arrays
	1077	* have the same size (and may also be empty). */
	1078	const WeightArray& GetWeights() const {
	1079	return weights;
	1080	}
	1081
	1082	/** get indices into the vertex data of the geometry associated
	1083	* with this cluster. Use #GetWeights() to get the associated weights.
	1084	* Both arrays have the same size (and may also be empty). */
	1085	const WeightIndexArray& GetIndices() const {
	1086	return indices;
	1087	}
	1088
	1089	/** */
	1090	const aiMatrix4x4& Transform() const {
	1091	return transform;
	1092	}
	1093
	1094	const aiMatrix4x4& TransformLink() const {
	1095	return transformLink;
	1096	}
	1097
	1098	const Model* const TargetNode() const {
	1099	return node;
	1100	}
	1101
	1102	private:
	1103
	1104	WeightArray weights;
	1105	WeightIndexArray indices;
	1106
	1107	aiMatrix4x4 transform;
	1108	aiMatrix4x4 transformLink;
	1109
	1110	const Model* node;
	1111	};
	1112
	1113
	1114
	1115	/** DOM class for skin deformers */
	1116	class Skin : public Deformer
	1117	{
	1118	public:
	1119
	1120	Skin(uint64_t id, const Element& element, const Document& doc, const std::string& name);
	1121	~Skin();
	1122
	1123	public:
	1124
	1125	float DeformAccuracy() const {
	1126	return accuracy;
	1127	}
	1128
	1129
	1130	const std::vector<const Cluster*>& Clusters() const {
	1131	return clusters;
	1132	}
	1133
	1134	private:
	1135
	1136	float accuracy;
	1137	std::vector<const Cluster*> clusters;
	1138	};
	1139
	1140
	1141
	1142	/** Represents a link between two FBX objects. */
	1143	class Connection
	1144	{
	1145	public:
	1146
	1147	Connection(uint64_t insertionOrder, uint64_t src, uint64_t dest, const std::string& prop, const Document& doc);
	1148	~Connection();
	1149
	1150	// note: a connection ensures that the source and dest objects exist, but
	1151	// not that they have DOM representations, so the return value of one of
	1152	// these functions can still be NULL.
	1153	const Object* SourceObject() const;
	1154	const Object* DestinationObject() const;
	1155
	1156	// these, however, are always guaranteed to be valid
	1157	LazyObject& LazySourceObject() const;
	1158	LazyObject& LazyDestinationObject() const;
	1159
	1160
	1161	/** return the name of the property the connection is attached to.
	1162	* this is an empty string for object to object (OO) connections. */
	1163	const std::string& PropertyName() const {
	1164	return prop;
	1165	}
	1166
	1167	uint64_t InsertionOrder() const {
	1168	return insertionOrder;
	1169	}
	1170
	1171	int CompareTo(const Connection* c) const {
	1172	// note: can't subtract because this would overflow uint64_t
	1173	if(InsertionOrder() > c->InsertionOrder()) {
	1174	return 1;
	1175	}
	1176	else if(InsertionOrder() < c->InsertionOrder()) {
	1177	return -1;
	1178	}
	1179	return 0;
	1180	}
	1181
	1182	bool Compare(const Connection* c) const {
	1183	return InsertionOrder() < c->InsertionOrder();
	1184	}
	1185
	1186	public:
	1187
	1188	uint64_t insertionOrder;
	1189	const std::string prop;
	1190
	1191	uint64_t src, dest;
	1192	const Document& doc;
	1193	};
	1194
	1195
	1196	// XXX again, unique_ptr would be useful. shared_ptr is too
	1197	// bloated since the objects have a well-defined single owner
	1198	// during their entire lifetime (Document). FBX files have
	1199	// up to many thousands of objects (most of which we never use),
	1200	// so the memory overhead for them should be kept at a minimum.
	1201	typedef std::map<uint64_t, LazyObject*> ObjectMap;
	1202	typedef std::fbx_unordered_map<std::string, boost::shared_ptr<const PropertyTable> > PropertyTemplateMap;
	1203
	1204
	1205	typedef std::multimap<uint64_t, const Connection*> ConnectionMap;
	1206
	1207
	1208	/** DOM class for global document settings, a single instance per document can
	1209	* be accessed via Document.Globals(). */
	1210	class FileGlobalSettings
	1211	{
	1212	public:
	1213
	1214	FileGlobalSettings(const Document& doc, boost::shared_ptr<const PropertyTable> props);
	1215	~FileGlobalSettings();
	1216
	1217	public:
	1218
	1219	const PropertyTable& Props() const {
	1220	ai_assert(props.get());
	1221	return *props.get();
	1222	}
	1223
	1224	const Document& GetDocument() const {
	1225	return doc;
	1226	}
	1227
	1228
	1229	fbx_simple_property(UpAxis, int, 1);
	1230	fbx_simple_property(UpAxisSign, int, 1);
	1231	fbx_simple_property(FrontAxis, int, 2);
	1232	fbx_simple_property(FrontAxisSign, int, 1);
	1233	fbx_simple_property(CoordAxis, int, 0);
	1234	fbx_simple_property(CoordAxisSign, int, 1);
	1235	fbx_simple_property(OriginalUpAxis, int, 0);
	1236	fbx_simple_property(OriginalUpAxisSign, int, 1);
	1237	fbx_simple_property(UnitScaleFactor, double, 1);
	1238	fbx_simple_property(OriginalUnitScaleFactor, double, 1);
	1239	fbx_simple_property(AmbientColor, aiVector3D, aiVector3D(0,0,0));
	1240	fbx_simple_property(DefaultCamera, std::string, "");
	1241
	1242
	1243	enum FrameRate {
	1244	FrameRate_DEFAULT = 0,
	1245	FrameRate_120 = 1,
	1246	FrameRate_100 = 2,
	1247	FrameRate_60 = 3,
	1248	FrameRate_50 = 4,
	1249	FrameRate_48 = 5,
	1250	FrameRate_30 = 6,
	1251	FrameRate_30_DROP = 7,
	1252	FrameRate_NTSC_DROP_FRAME = 8,
	1253	FrameRate_NTSC_FULL_FRAME = 9,
	1254	FrameRate_PAL = 10,
	1255	FrameRate_CINEMA = 11,
	1256	FrameRate_1000 = 12,
	1257	FrameRate_CINEMA_ND = 13,
	1258	FrameRate_CUSTOM = 14,
	1259
	1260	FrameRate_MAX// end-of-enum sentinel
	1261	};
	1262
	1263	fbx_simple_enum_property(TimeMode, FrameRate, FrameRate_DEFAULT);
	1264	fbx_simple_property(TimeSpanStart, uint64_t, 0L);
	1265	fbx_simple_property(TimeSpanStop, uint64_t, 0L);
	1266	fbx_simple_property(CustomFrameRate, float, -1.0f);
	1267
	1268
	1269	private:
	1270
	1271	boost::shared_ptr<const PropertyTable> props;
	1272	const Document& doc;
	1273	};
	1274
	1275
	1276
	1277
	1278	/** DOM root for a FBX file */
	1279	class Document
	1280	{
	1281	public:
	1282
	1283	Document(const Parser& parser, const ImportSettings& settings);
	1284	~Document();
	1285
	1286	public:
	1287
	1288	LazyObject* GetObject(uint64_t id) const;
	1289
	1290	bool IsBinary() const {
	1291	return parser.IsBinary();
	1292	}
	1293
	1294	unsigned int FBXVersion() const {
	1295	return fbxVersion;
	1296	}
	1297
	1298	const std::string& Creator() const {
	1299	return creator;
	1300	}
	1301
	1302	// elements (in this order): Uear, Month, Day, Hour, Second, Millisecond
	1303	const unsigned int* CreationTimeStamp() const {
	1304	return creationTimeStamp;
	1305	}
	1306
	1307	const FileGlobalSettings& GlobalSettings() const {
	1308	ai_assert(globals.get());
	1309	return *globals.get();
	1310	}
	1311
	1312	const PropertyTemplateMap& Templates() const {
	1313	return templates;
	1314	}
	1315
	1316	const ObjectMap& Objects() const {
	1317	return objects;
	1318	}
	1319
	1320	const ImportSettings& Settings() const {
	1321	return settings;
	1322	}
	1323
	1324	const ConnectionMap& ConnectionsBySource() const {
	1325	return src_connections;
	1326	}
	1327
	1328	const ConnectionMap& ConnectionsByDestination() const {
	1329	return dest_connections;
	1330	}
	1331
	1332	// note: the implicit rule in all DOM classes is to always resolve
	1333	// from destination to source (since the FBX object hierarchy is,
	1334	// with very few exceptions, a DAG, this avoids cycles). In all
	1335	// cases that may involve back-facing edges in the object graph,
	1336	// use LazyObject::IsBeingConstructed() to check.
	1337
	1338	std::vector<const Connection*> GetConnectionsBySourceSequenced(uint64_t source) const;
	1339	std::vector<const Connection*> GetConnectionsByDestinationSequenced(uint64_t dest) const;
	1340
	1341	std::vector<const Connection> GetConnectionsBySourceSequenced(uint64_t source, const char classname) const;
	1342	std::vector<const Connection> GetConnectionsByDestinationSequenced(uint64_t dest, const char classname) const;
	1343
	1344	std::vector<const Connection*> GetConnectionsBySourceSequenced(uint64_t source,
	1345	const char* const* classnames, size_t count) const;
	1346	std::vector<const Connection*> GetConnectionsByDestinationSequenced(uint64_t dest,
	1347	const char* const* classnames,
	1348	size_t count) const;
	1349
	1350	const std::vector<const AnimationStack*>& AnimationStacks() const;
	1351
	1352	private:
	1353
	1354	std::vector<const Connection*> GetConnectionsSequenced(uint64_t id, const ConnectionMap&) const;
	1355	std::vector<const Connection*> GetConnectionsSequenced(uint64_t id, bool is_src,
	1356	const ConnectionMap&,
	1357	const char* const* classnames,
	1358	size_t count) const;
	1359
	1360	private:
	1361
	1362	void ReadHeader();
	1363	void ReadObjects();
	1364	void ReadPropertyTemplates();
	1365	void ReadConnections();
	1366	void ReadGlobalSettings();
	1367
	1368	private:
	1369
	1370	const ImportSettings& settings;
	1371
	1372	ObjectMap objects;
	1373	const Parser& parser;
	1374
	1375	PropertyTemplateMap templates;
	1376	ConnectionMap src_connections;
	1377	ConnectionMap dest_connections;
	1378
	1379	unsigned int fbxVersion;
	1380	std::string creator;
	1381	unsigned int creationTimeStamp[7];
	1382
	1383	std::vector<uint64_t> animationStacks;
	1384	mutable std::vector<const AnimationStack*> animationStacksResolved;
	1385
	1386	boost::scoped_ptr<FileGlobalSettings> globals;
	1387	};
	1388
	1389	}
	1390	}
	1391
	1392	#endif

+133

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code/FBXDocumentUtil.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXDocumentUtil.cpp
	41	* @brief Implementation of the FBX DOM utility functions declared in FBXDocumentUtil.h
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	#include "FBXParser.h"
	48	#include "FBXDocument.h"
	49	#include "FBXUtil.h"
	50	#include "FBXDocumentUtil.h"
	51	#include "FBXProperties.h"
	52
	53	namespace Assimp {
	54	namespace FBX {
	55	namespace Util {
	56
	57	// ------------------------------------------------------------------------------------------------
	58	// signal DOM construction error, this is always unrecoverable. Throws DeadlyImportError.
	59	void DOMError(const std::string& message, const Token& token)
	60	{
	61	throw DeadlyImportError(Util::AddTokenText("FBX-DOM",message,&token));
	62	}
	63
	64	// ------------------------------------------------------------------------------------------------
	65	void DOMError(const std::string& message, const Element* element /= NULL/)
	66	{
	67	if(element) {
	68	DOMError(message,element->KeyToken());
	69	}
	70	throw DeadlyImportError("FBX-DOM " + message);
	71	}
	72
	73
	74	// ------------------------------------------------------------------------------------------------
	75	// print warning, do return
	76	void DOMWarning(const std::string& message, const Token& token)
	77	{
	78	if(DefaultLogger::get()) {
	79	DefaultLogger::get()->warn(Util::AddTokenText("FBX-DOM",message,&token));
	80	}
	81	}
	82
	83	// ------------------------------------------------------------------------------------------------
	84	void DOMWarning(const std::string& message, const Element* element /= NULL/)
	85	{
	86	if(element) {
	87	DOMWarning(message,element->KeyToken());
	88	return;
	89	}
	90	if(DefaultLogger::get()) {
	91	DefaultLogger::get()->warn("FBX-DOM: " + message);
	92	}
	93	}
	94
	95
	96	// ------------------------------------------------------------------------------------------------
	97	// fetch a property table and the corresponding property template
	98	boost::shared_ptr<const PropertyTable> GetPropertyTable(const Document& doc,
	99	const std::string& templateName,
	100	const Element &element,
	101	const Scope& sc,
	102	bool no_warn /= false/)
	103	{
	104	const Element* const Properties70 = sc["Properties70"];
	105	boost::shared_ptr<const PropertyTable> templateProps = boost::shared_ptr<const PropertyTable>(
	106	static_cast<const PropertyTable*>(NULL));
	107
	108	if(templateName.length()) {
	109	PropertyTemplateMap::const_iterator it = doc.Templates().find(templateName);
	110	if(it != doc.Templates().end()) {
	111	templateProps = (*it).second;
	112	}
	113	}
	114
	115	if(!Properties70) {
	116	if(!no_warn) {
	117	DOMWarning("property table (Properties70) not found",&element);
	118	}
	119	if(templateProps) {
	120	return templateProps;
	121	}
	122	else {
	123	return boost::make_shared<const PropertyTable>();
	124	}
	125	}
	126	return boost::make_shared<const PropertyTable>(*Properties70,templateProps);
	127	}
	128	} // !Util
	129	} // !FBX
	130	} // !Assimp
	131
	132	#endif

+114

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code/FBXDocumentUtil.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXDocumentUtil.h
	41	* @brief FBX internal utilities used by the DOM reading code
	42	*/
	43	#ifndef INCLUDED_AI_FBX_DOCUMENT_UTIL_H
	44	#define INCLUDED_AI_FBX_DOCUMENT_UTIL_H
	45
	46	namespace Assimp {
	47	namespace FBX {
	48	namespace Util {
	49
	50
	51	/* DOM/Parse error reporting - does not return */
	52	AI_WONT_RETURN void DOMError(const std::string& message, const Token& token) AI_WONT_RETURN_SUFFIX;
	53	AI_WONT_RETURN void DOMError(const std::string& message, const Element* element = NULL) AI_WONT_RETURN_SUFFIX;
	54
	55	// does return
	56	void DOMWarning(const std::string& message, const Token& token);
	57	void DOMWarning(const std::string& message, const Element* element = NULL);
	58
	59
	60	// fetch a property table and the corresponding property template
	61	boost::shared_ptr<const PropertyTable> GetPropertyTable(const Document& doc,
	62	const std::string& templateName,
	63	const Element &element,
	64	const Scope& sc,
	65	bool no_warn = false);
	66
	67
	68	// ------------------------------------------------------------------------------------------------
	69	template <typename T>
	70	inline const T* ProcessSimpleConnection(const Connection& con,
	71	bool is_object_property_conn,
	72	const char* name,
	73	const Element& element,
	74	const char** propNameOut = NULL)
	75	{
	76	if (is_object_property_conn && !con.PropertyName().length()) {
	77	DOMWarning("expected incoming " + std::string(name) +
	78	" link to be an object-object connection, ignoring",
	79	&element
	80	);
	81	return NULL;
	82	}
	83	else if (!is_object_property_conn && con.PropertyName().length()) {
	84	DOMWarning("expected incoming " + std::string(name) +
	85	" link to be an object-property connection, ignoring",
	86	&element
	87	);
	88	return NULL;
	89	}
	90
	91	if(is_object_property_conn && propNameOut) {
	92	// note: this is ok, the return value of PropertyValue() is guaranteed to
	93	// remain valid and unchanged as long as the document exists.
	94	*propNameOut = con.PropertyName().c_str();
	95	}
	96
	97	const Object* const ob = con.SourceObject();
	98	if(!ob) {
	99	DOMWarning("failed to read source object for incoming" + std::string(name) +
	100	" link, ignoring",
	101	&element);
	102	return NULL;
	103	}
	104
	105	return dynamic_cast<const T*>(ob);
	106	}
	107
	108
	109	} //!Util
	110	} //!FBX
	111	} //!Assimp
	112
	113	#endif

+142

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code/FBXImportSettings.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXImportSettings.h
	41	* @brief FBX importer runtime configuration
	42	*/
	43	#ifndef INCLUDED_AI_FBX_IMPORTSETTINGS_H
	44	#define INCLUDED_AI_FBX_IMPORTSETTINGS_H
	45
	46	namespace Assimp {
	47	namespace FBX {
	48
	49	/** FBX import settings, parts of which are publicly accessible via their corresponding AI_CONFIG constants */
	50	struct ImportSettings
	51	{
	52	ImportSettings()
	53	: strictMode(true)
	54	, readAllLayers(true)
	55	, readAllMaterials(false)
	56	, readMaterials(true)
	57	, readCameras(true)
	58	, readLights(true)
	59	, readAnimations(true)
	60	, readWeights(true)
	61	, preservePivots(true)
	62	, optimizeEmptyAnimationCurves(true)
	63	{}
	64
	65
	66	/** enable strict mode:
	67	* - only accept fbx 2012, 2013 files
	68	* - on the slightest error, give up.
	69	*
	70	* Basically, strict mode means that the fbx file will actually
	71	* be validated. Strict mode is off by default. */
	72	bool strictMode;
	73
	74	/** specifies whether all geometry layers are read and scanned for
	75	* usable data channels. The FBX spec indicates that many readers
	76	* will only read the first channel and that this is in some way
	77	* the recommended way- in reality, however, it happens a lot that
	78	* vertex data is spread among multiple layers. The default
	79	* value for this option is true.*/
	80	bool readAllLayers;
	81
	82	/** specifies whether all materials are read, or only those that
	83	* are referenced by at least one mesh. Reading all materials
	84	* may make FBX reading a lot slower since all objects
	85	* need to be processed .
	86	* This bit is ignored unless readMaterials=true*/
	87	bool readAllMaterials;
	88
	89
	90	/** import materials (true) or skip them and assign a default
	91	* material. The default value is true.*/
	92	bool readMaterials;
	93
	94	/** import cameras? Default value is true.*/
	95	bool readCameras;
	96
	97	/** import light sources? Default value is true.*/
	98	bool readLights;
	99
	100	/** import animations (i.e. animation curves, the node
	101	* skeleton is always imported). Default value is true. */
	102	bool readAnimations;
	103
	104	/** read bones (vertex weights and deform info).
	105	* Default value is true. */
	106	bool readWeights;
	107
	108	/** preserve transformation pivots and offsets. Since these can
	109	* not directly be represented in assimp, additional dummy
	110	* nodes will be generated. Note that settings this to false
	111	* can make animation import a lot slower. The default value
	112	* is true.
	113	*
	114	* The naming scheme for the generated nodes is:
	115	* <OriginalName>_$AssimpFbx$_<TransformName>
	116	*
	117	* where <TransformName> is one of
	118	* RotationPivot
	119	* RotationOffset
	120	* PreRotation
	121	* PostRotation
	122	* ScalingPivot
	123	* ScalingOffset
	124	* Translation
	125	* Scaling
	126	* Rotation
	127	**/
	128	bool preservePivots;
	129
	130	/** do not import animation curves that specify a constant
	131	* values matching the corresponding node transformation.
	132	* The default value is true. */
	133	bool optimizeEmptyAnimationCurves;
	134	};
	135
	136
	137	} // !FBX
	138	} // !Assimp
	139
	140	#endif
	141

+189

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code/FBXImporter.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXImporter.cpp
	41	* @brief Implementation of the FBX importer.
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	#include <exception>
	48	#include <iterator>
	49	#include <boost/tuple/tuple.hpp>
	50
	51	#include "FBXImporter.h"
	52
	53	#include "FBXTokenizer.h"
	54	#include "FBXParser.h"
	55	#include "FBXUtil.h"
	56	#include "FBXDocument.h"
	57	#include "FBXConverter.h"
	58
	59	#include "StreamReader.h"
	60	#include "MemoryIOWrapper.h"
	61
	62	namespace Assimp {
	63	template<> const std::string LogFunctions<FBXImporter>::log_prefix = "FBX: ";
	64	}
	65
	66	using namespace Assimp;
	67	using namespace Assimp::Formatter;
	68	using namespace Assimp::FBX;
	69
	70	namespace {
	71	static const aiImporterDesc desc = {
	72	"Autodesk FBX Importer",
	73	"",
	74	"",
	75	"",
	76	aiImporterFlags_SupportTextFlavour,
	77	0,
	78	0,
	79	0,
	80	0,
	81	"fbx"
	82	};
	83	}
	84
	85	// ------------------------------------------------------------------------------------------------
	86	// Constructor to be privately used by #Importer
	87	FBXImporter::FBXImporter()
	88	{}
	89
	90	// ------------------------------------------------------------------------------------------------
	91	// Destructor, private as well
	92	FBXImporter::~FBXImporter()
	93	{
	94	}
	95
	96	// ------------------------------------------------------------------------------------------------
	97	// Returns whether the class can handle the format of the given file.
	98	bool FBXImporter::CanRead( const std::string& pFile, IOSystem* pIOHandler, bool checkSig) const
	99	{
	100	const std::string& extension = GetExtension(pFile);
	101	if (extension == "fbx") {
	102	return true;
	103	}
	104
	105	else if ((!extension.length() \|\| checkSig) && pIOHandler) {
	106	// at least ascii FBX files usually have a 'FBX' somewhere in their head
	107	const char* tokens[] = {"FBX"};
	108	return SearchFileHeaderForToken(pIOHandler,pFile,tokens,1);
	109	}
	110	return false;
	111	}
	112
	113	// ------------------------------------------------------------------------------------------------
	114	// List all extensions handled by this loader
	115	const aiImporterDesc* FBXImporter::GetInfo () const
	116	{
	117	return &desc;
	118	}
	119
	120
	121	// ------------------------------------------------------------------------------------------------
	122	// Setup configuration properties for the loader
	123	void FBXImporter::SetupProperties(const Importer* pImp)
	124	{
	125	settings.readAllLayers = pImp->GetPropertyBool(AI_CONFIG_IMPORT_FBX_READ_ALL_GEOMETRY_LAYERS, true);
	126	settings.readAllMaterials = pImp->GetPropertyBool(AI_CONFIG_IMPORT_FBX_READ_ALL_MATERIALS, false);
	127	settings.readMaterials = pImp->GetPropertyBool(AI_CONFIG_IMPORT_FBX_READ_MATERIALS, true);
	128	settings.readCameras = pImp->GetPropertyBool(AI_CONFIG_IMPORT_FBX_READ_CAMERAS, true);
	129	settings.readLights = pImp->GetPropertyBool(AI_CONFIG_IMPORT_FBX_READ_LIGHTS, true);
	130	settings.readAnimations = pImp->GetPropertyBool(AI_CONFIG_IMPORT_FBX_READ_ANIMATIONS, true);
	131	settings.strictMode = pImp->GetPropertyBool(AI_CONFIG_IMPORT_FBX_STRICT_MODE, false);
	132	settings.preservePivots = pImp->GetPropertyBool(AI_CONFIG_IMPORT_FBX_PRESERVE_PIVOTS, true);
	133	settings.optimizeEmptyAnimationCurves = pImp->GetPropertyBool(AI_CONFIG_IMPORT_FBX_OPTIMIZE_EMPTY_ANIMATION_CURVES, true);
	134	}
	135
	136
	137	// ------------------------------------------------------------------------------------------------
	138	// Imports the given file into the given scene structure.
	139	void FBXImporter::InternReadFile( const std::string& pFile,
	140	aiScene* pScene, IOSystem* pIOHandler)
	141	{
	142	boost::scoped_ptr<IOStream> stream(pIOHandler->Open(pFile,"rb"));
	143	if (!stream) {
	144	ThrowException("Could not open file for reading");
	145	}
	146
	147	// read entire file into memory - no streaming for this, fbx
	148	// files can grow large, but the assimp output data structure
	149	// then becomes very large, too. Assimp doesn't support
	150	// streaming for its output data structures so the net win with
	151	// streaming input data would be very low.
	152	std::vector<char> contents;
	153	contents.resize(stream->FileSize());
	154
	155	stream->Read(&*contents.begin(),contents.size(),1);
	156	const char* const begin = &*contents.begin();
	157
	158	// broadphase tokenizing pass in which we identify the core
	159	// syntax elements of FBX (brackets, commas, key:value mappings)
	160	TokenList tokens;
	161	try {
	162
	163	bool is_binary = false;
	164	if (!strncmp(begin,"Kaydara FBX Binary",18)) {
	165	is_binary = true;
	166	TokenizeBinary(tokens,begin,contents.size());
	167	}
	168	else {
	169	Tokenize(tokens,begin);
	170	}
	171
	172	// use this information to construct a very rudimentary
	173	// parse-tree representing the FBX scope structure
	174	Parser parser(tokens, is_binary);
	175
	176	// take the raw parse-tree and convert it to a FBX DOM
	177	Document doc(parser,settings);
	178
	179	// convert the FBX DOM to aiScene
	180	ConvertToAssimpScene(pScene,doc);
	181	}
	182	catch(std::exception&) {
	183	std::for_each(tokens.begin(),tokens.end(),Util::delete_fun<Token>());
	184	throw;
	185	}
	186	}
	187
	188	#endif // !ASSIMP_BUILD_NO_FBX_IMPORTER

+107

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code/FBXImporter.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXImporter.h
	41	* @brief Declaration of the FBX main importer class
	42	*/
	43	#ifndef INCLUDED_AI_FBX_IMPORTER_H
	44	#define INCLUDED_AI_FBX_IMPORTER_H
	45
	46	#include "BaseImporter.h"
	47	#include "LogAux.h"
	48
	49	#include "FBXImportSettings.h"
	50
	51	namespace Assimp {
	52
	53	// TinyFormatter.h
	54	namespace Formatter {
	55	template <typename T,typename TR, typename A> class basic_formatter;
	56	typedef class basic_formatter< char, std::char_traits<char>, std::allocator<char> > format;
	57	}
	58
	59
	60	// -------------------------------------------------------------------------------------------
	61	/** Load the Autodesk FBX file format.
	62
	63	See http://en.wikipedia.org/wiki/FBX
	64	*/
	65	// -------------------------------------------------------------------------------------------
	66	class FBXImporter : public BaseImporter, public LogFunctions<FBXImporter>
	67	{
	68	public:
	69	FBXImporter();
	70	~FBXImporter();
	71
	72
	73	public:
	74
	75	// --------------------
	76	bool CanRead( const std::string& pFile,
	77	IOSystem* pIOHandler,
	78	bool checkSig
	79	) const;
	80
	81	protected:
	82
	83	// --------------------
	84	const aiImporterDesc* GetInfo () const;
	85
	86	// --------------------
	87	void SetupProperties(const Importer* pImp);
	88
	89	// --------------------
	90	void InternReadFile( const std::string& pFile,
	91	aiScene* pScene,
	92	IOSystem* pIOHandler
	93	);
	94
	95	private:
	96
	97
	98	private:
	99
	100	FBX::ImportSettings settings;
	101
	102	}; // !class FBXImporter
	103
	104	} // end of namespace Assimp
	105	#endif // !INCLUDED_AI_FBX_IMPORTER_H
	106

+259

-0

code/FBXMaterial.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXMaterial.cpp
	41	* @brief Assimp::FBX::Material and Assimp::FBX::Texture implementation
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	#include "FBXParser.h"
	48	#include "FBXDocument.h"
	49	#include "FBXImporter.h"
	50	#include "FBXImportSettings.h"
	51	#include "FBXDocumentUtil.h"
	52	#include "FBXProperties.h"
	53
	54	namespace Assimp {
	55	namespace FBX {
	56
	57	using namespace Util;
	58
	59	// ------------------------------------------------------------------------------------------------
	60	Material::Material(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	61	: Object(id,element,name)
	62	{
	63	const Scope& sc = GetRequiredScope(element);
	64
	65	const Element* const ShadingModel = sc["ShadingModel"];
	66	const Element* const MultiLayer = sc["MultiLayer"];
	67
	68	if(MultiLayer) {
	69	multilayer = !!ParseTokenAsInt(GetRequiredToken(*MultiLayer,0));
	70	}
	71
	72	if(ShadingModel) {
	73	shading = ParseTokenAsString(GetRequiredToken(*ShadingModel,0));
	74	}
	75	else {
	76	DOMWarning("shading mode not specified, assuming phong",&element);
	77	shading = "phong";
	78	}
	79
	80	std::string templateName;
	81
	82	const char* const sh = shading.c_str();
	83	if(!strcmp(sh,"phong")) {
	84	templateName = "Material.FbxSurfacePhong";
	85	}
	86	else if(!strcmp(sh,"lambert")) {
	87	templateName = "Material.FbxSurfaceLambert";
	88	}
	89	else {
	90	DOMWarning("shading mode not recognized: " + shading,&element);
	91	}
	92
	93	props = GetPropertyTable(doc,templateName,element,sc);
	94
	95	// resolve texture links
	96	const std::vector<const Connection*>& conns = doc.GetConnectionsByDestinationSequenced(ID());
	97	BOOST_FOREACH(const Connection* con, conns) {
	98
	99	// texture link to properties, not objects
	100	if (!con->PropertyName().length()) {
	101	continue;
	102	}
	103
	104	const Object* const ob = con->SourceObject();
	105	if(!ob) {
	106	DOMWarning("failed to read source object for texture link, ignoring",&element);
	107	continue;
	108	}
	109
	110	const Texture* const tex = dynamic_cast<const Texture*>(ob);
	111	if(!tex) {
	112	const LayeredTexture* const layeredTexture = dynamic_cast<const LayeredTexture*>(ob);
	113	if(!layeredTexture) {
	114	DOMWarning("source object for texture link is not a texture or layered texture, ignoring",&element);
	115	continue;
	116	}
	117	const std::string& prop = con->PropertyName();
	118	if (layeredTextures.find(prop) != layeredTextures.end()) {
	119	DOMWarning("duplicate layered texture link: " + prop,&element);
	120	}
	121
	122	layeredTextures[prop] = layeredTexture;
	123	((LayeredTexture*)layeredTexture)->fillTexture(doc);
	124	}
	125	else
	126	{
	127	const std::string& prop = con->PropertyName();
	128	if (textures.find(prop) != textures.end()) {
	129	DOMWarning("duplicate texture link: " + prop,&element);
	130	}
	131
	132	textures[prop] = tex;
	133	}
	134
	135	}
	136	}
	137
	138
	139	// ------------------------------------------------------------------------------------------------
	140	Material::~Material()
	141	{
	142	}
	143
	144
	145	// ------------------------------------------------------------------------------------------------
	146	Texture::Texture(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	147	: Object(id,element,name)
	148	, uvScaling(1.0f,1.0f)
	149	{
	150	const Scope& sc = GetRequiredScope(element);
	151
	152	const Element* const Type = sc["Type"];
	153	const Element* const FileName = sc["FileName"];
	154	const Element* const RelativeFilename = sc["RelativeFilename"];
	155	const Element* const ModelUVTranslation = sc["ModelUVTranslation"];
	156	const Element* const ModelUVScaling = sc["ModelUVScaling"];
	157	const Element* const Texture_Alpha_Source = sc["Texture_Alpha_Source"];
	158	const Element* const Cropping = sc["Cropping"];
	159
	160	if(Type) {
	161	type = ParseTokenAsString(GetRequiredToken(*Type,0));
	162	}
	163
	164	if(FileName) {
	165	fileName = ParseTokenAsString(GetRequiredToken(*FileName,0));
	166	}
	167
	168	if(RelativeFilename) {
	169	relativeFileName = ParseTokenAsString(GetRequiredToken(*RelativeFilename,0));
	170	}
	171
	172	if(ModelUVTranslation) {
	173	uvTrans = aiVector2D(ParseTokenAsFloat(GetRequiredToken(*ModelUVTranslation,0)),
	174	ParseTokenAsFloat(GetRequiredToken(*ModelUVTranslation,1))
	175	);
	176	}
	177
	178	if(ModelUVScaling) {
	179	uvScaling = aiVector2D(ParseTokenAsFloat(GetRequiredToken(*ModelUVScaling,0)),
	180	ParseTokenAsFloat(GetRequiredToken(*ModelUVScaling,1))
	181	);
	182	}
	183
	184	if(Cropping) {
	185	crop[0] = ParseTokenAsInt(GetRequiredToken(*Cropping,0));
	186	crop[1] = ParseTokenAsInt(GetRequiredToken(*Cropping,1));
	187	crop[2] = ParseTokenAsInt(GetRequiredToken(*Cropping,2));
	188	crop[3] = ParseTokenAsInt(GetRequiredToken(*Cropping,3));
	189	}
	190	else {
	191	// vc8 doesn't support the crop() syntax in initialization lists
	192	// (and vc9 WARNS about the new (i.e. compliant) behaviour).
	193	crop[0] = crop[1] = crop[2] = crop[3] = 0;
	194	}
	195
	196	if(Texture_Alpha_Source) {
	197	alphaSource = ParseTokenAsString(GetRequiredToken(*Texture_Alpha_Source,0));
	198	}
	199
	200	props = GetPropertyTable(doc,"Texture.FbxFileTexture",element,sc);
	201	}
	202
	203
	204	Texture::~Texture()
	205	{
	206
	207	}
	208
	209	LayeredTexture::LayeredTexture(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	210	: Object(id,element,name)
	211	,texture(0)
	212	,blendMode(BlendMode_Modulate)
	213	,alpha(1)
	214	{
	215	const Scope& sc = GetRequiredScope(element);
	216
	217	const Element* const BlendModes = sc["BlendModes"];
	218	const Element* const Alphas = sc["Alphas"];
	219
	220
	221	if(BlendModes!=0)
	222	{
	223	blendMode = (BlendMode)ParseTokenAsInt(GetRequiredToken(*BlendModes,0));
	224	}
	225	if(Alphas!=0)
	226	{
	227	alpha = ParseTokenAsFloat(GetRequiredToken(*Alphas,0));
	228	}
	229	}
	230
	231	LayeredTexture::~LayeredTexture()
	232	{
	233
	234	}
	235
	236	void LayeredTexture::fillTexture(const Document& doc)
	237	{
	238	const std::vector<const Connection*>& conns = doc.GetConnectionsByDestinationSequenced(ID());
	239	for(size_t i = 0; i < conns.size();++i)
	240	{
	241	const Connection* con = conns.at(i);
	242
	243	const Object* const ob = con->SourceObject();
	244	if(!ob) {
	245	DOMWarning("failed to read source object for texture link, ignoring",&element);
	246	continue;
	247	}
	248
	249	const Texture* const tex = dynamic_cast<const Texture*>(ob);
	250
	251	texture = tex;
	252	}
	253	}
	254
	255	} //!FBX
	256	} //!Assimp
	257
	258	#endif

+540

-0

code/FBXMeshGeometry.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXMeshGeometry.cpp
	41	* @brief Assimp::FBX::MeshGeometry implementation
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	#include <functional>
	48
	49	#include "FBXParser.h"
	50	#include "FBXDocument.h"
	51	#include "FBXImporter.h"
	52	#include "FBXImportSettings.h"
	53	#include "FBXDocumentUtil.h"
	54
	55
	56	namespace Assimp {
	57	namespace FBX {
	58
	59	using namespace Util;
	60
	61
	62	// ------------------------------------------------------------------------------------------------
	63	Geometry::Geometry(uint64_t id, const Element& element, const std::string& name, const Document& doc)
	64	: Object(id, element,name)
	65	, skin()
	66	{
	67	const std::vector<const Connection*>& conns = doc.GetConnectionsByDestinationSequenced(ID(),"Deformer");
	68	BOOST_FOREACH(const Connection* con, conns) {
	69	const Skin* const sk = ProcessSimpleConnection<Skin>(*con, false, "Skin -> Geometry", element);
	70	if(sk) {
	71	skin = sk;
	72	break;
	73	}
	74	}
	75	}
	76
	77
	78	// ------------------------------------------------------------------------------------------------
	79	Geometry::~Geometry()
	80	{
	81
	82	}
	83
	84
	85
	86	// ------------------------------------------------------------------------------------------------
	87	MeshGeometry::MeshGeometry(uint64_t id, const Element& element, const std::string& name, const Document& doc)
	88	: Geometry(id, element,name, doc)
	89	{
	90	const Scope* sc = element.Compound();
	91	if (!sc) {
	92	DOMError("failed to read Geometry object (class: Mesh), no data scope found");
	93	}
	94
	95	// must have Mesh elements:
	96	const Element& Vertices = GetRequiredElement(*sc,"Vertices",&element);
	97	const Element& PolygonVertexIndex = GetRequiredElement(*sc,"PolygonVertexIndex",&element);
	98
	99	// optional Mesh elements:
	100	const ElementCollection& Layer = sc->GetCollection("Layer");
	101
	102	std::vector<aiVector3D> tempVerts;
	103	ParseVectorDataArray(tempVerts,Vertices);
	104
	105	if(tempVerts.empty()) {
	106	FBXImporter::LogWarn("encountered mesh with no vertices");
	107	return;
	108	}
	109
	110	std::vector<int> tempFaces;
	111	ParseVectorDataArray(tempFaces,PolygonVertexIndex);
	112
	113	if(tempFaces.empty()) {
	114	FBXImporter::LogWarn("encountered mesh with no faces");
	115	return;
	116	}
	117
	118	vertices.reserve(tempFaces.size());
	119	faces.reserve(tempFaces.size() / 3);
	120
	121	mapping_offsets.resize(tempVerts.size());
	122	mapping_counts.resize(tempVerts.size(),0);
	123	mappings.resize(tempFaces.size());
	124
	125	const size_t vertex_count = tempVerts.size();
	126
	127	// generate output vertices, computing an adjacency table to
	128	// preserve the mapping from fbx indices to this indexing.
	129	unsigned int count = 0;
	130	BOOST_FOREACH(int index, tempFaces) {
	131	const int absi = index < 0 ? (-index - 1) : index;
	132	if(static_cast<size_t>(absi) >= vertex_count) {
	133	DOMError("polygon vertex index out of range",&PolygonVertexIndex);
	134	}
	135
	136	vertices.push_back(tempVerts[absi]);
	137	++count;
	138
	139	++mapping_counts[absi];
	140
	141	if (index < 0) {
	142	faces.push_back(count);
	143	count = 0;
	144	}
	145	}
	146
	147	unsigned int cursor = 0;
	148	for (size_t i = 0, e = tempVerts.size(); i < e; ++i) {
	149	mapping_offsets[i] = cursor;
	150	cursor += mapping_counts[i];
	151
	152	mapping_counts[i] = 0;
	153	}
	154
	155	cursor = 0;
	156	BOOST_FOREACH(int index, tempFaces) {
	157	const int absi = index < 0 ? (-index - 1) : index;
	158	mappings[mapping_offsets[absi] + mapping_counts[absi]++] = cursor++;
	159	}
	160
	161	// if settings.readAllLayers is true:
	162	// * read all layers, try to load as many vertex channels as possible
	163	// if settings.readAllLayers is false:
	164	// * read only the layer with index 0, but warn about any further layers
	165	for (ElementMap::const_iterator it = Layer.first; it != Layer.second; ++it) {
	166	const TokenList& tokens = (*it).second->Tokens();
	167
	168	const char* err;
	169	const int index = ParseTokenAsInt(*tokens[0], err);
	170	if(err) {
	171	DOMError(err,&element);
	172	}
	173
	174	if(doc.Settings().readAllLayers \|\| index == 0) {
	175	const Scope& layer = GetRequiredScope((it).second);
	176	ReadLayer(layer);
	177	}
	178	else {
	179	FBXImporter::LogWarn("ignoring additional geometry layers");
	180	}
	181	}
	182	}
	183
	184
	185	// ------------------------------------------------------------------------------------------------
	186	MeshGeometry::~MeshGeometry()
	187	{
	188
	189	}
	190
	191
	192
	193	// ------------------------------------------------------------------------------------------------
	194	void MeshGeometry::ReadLayer(const Scope& layer)
	195	{
	196	const ElementCollection& LayerElement = layer.GetCollection("LayerElement");
	197	for (ElementMap::const_iterator eit = LayerElement.first; eit != LayerElement.second; ++eit) {
	198	const Scope& elayer = GetRequiredScope((eit).second);
	199
	200	ReadLayerElement(elayer);
	201	}
	202	}
	203
	204
	205	// ------------------------------------------------------------------------------------------------
	206	void MeshGeometry::ReadLayerElement(const Scope& layerElement)
	207	{
	208	const Element& Type = GetRequiredElement(layerElement,"Type");
	209	const Element& TypedIndex = GetRequiredElement(layerElement,"TypedIndex");
	210
	211	const std::string& type = ParseTokenAsString(GetRequiredToken(Type,0));
	212	const int typedIndex = ParseTokenAsInt(GetRequiredToken(TypedIndex,0));
	213
	214	const Scope& top = GetRequiredScope(element);
	215	const ElementCollection candidates = top.GetCollection(type);
	216
	217	for (ElementMap::const_iterator it = candidates.first; it != candidates.second; ++it) {
	218	const int index = ParseTokenAsInt(GetRequiredToken((it).second,0));
	219	if(index == typedIndex) {
	220	ReadVertexData(type,typedIndex,GetRequiredScope((it).second));
	221	return;
	222	}
	223	}
	224
	225	FBXImporter::LogError(Formatter::format("failed to resolve vertex layer element: ")
	226	<< type << ", index: " << typedIndex);
	227	}
	228
	229
	230	// ------------------------------------------------------------------------------------------------
	231	void MeshGeometry::ReadVertexData(const std::string& type, int index, const Scope& source)
	232	{
	233	const std::string& MappingInformationType = ParseTokenAsString(GetRequiredToken(
	234	GetRequiredElement(source,"MappingInformationType"),0)
	235	);
	236
	237	const std::string& ReferenceInformationType = ParseTokenAsString(GetRequiredToken(
	238	GetRequiredElement(source,"ReferenceInformationType"),0)
	239	);
	240
	241	if (type == "LayerElementUV") {
	242	if(index >= AI_MAX_NUMBER_OF_TEXTURECOORDS) {
	243	FBXImporter::LogError(Formatter::format("ignoring UV layer, maximum number of UV channels exceeded: ")
	244	<< index << " (limit is " << AI_MAX_NUMBER_OF_TEXTURECOORDS << ")" );
	245	return;
	246	}
	247
	248	const Element* Name = source["Name"];
	249	uvNames[index] = "";
	250	if(Name) {
	251	uvNames[index] = ParseTokenAsString(GetRequiredToken(*Name,0));
	252	}
	253
	254	ReadVertexDataUV(uvs[index],source,
	255	MappingInformationType,
	256	ReferenceInformationType
	257	);
	258	}
	259	else if (type == "LayerElementMaterial") {
	260	if (materials.size() > 0) {
	261	FBXImporter::LogError("ignoring additional material layer");
	262	return;
	263	}
	264
	265	std::vector<int> temp_materials;
	266
	267	ReadVertexDataMaterials(temp_materials,source,
	268	MappingInformationType,
	269	ReferenceInformationType
	270	);
	271
	272	// sometimes, there will be only negative entries. Drop the material
	273	// layer in such a case (I guess it means a default material should
	274	// be used). This is what the converter would do anyway, and it
	275	// avoids loosing the material if there are more material layers
	276	// coming of which at least one contains actual data (did observe
	277	// that with one test file).
	278	const size_t count_neg = std::count_if(temp_materials.begin(),temp_materials.end(),std::bind2nd(std::less<int>(),0));
	279	if(count_neg == temp_materials.size()) {
	280	FBXImporter::LogWarn("ignoring dummy material layer (all entries -1)");
	281	return;
	282	}
	283
	284	std::swap(temp_materials, materials);
	285	}
	286	else if (type == "LayerElementNormal") {
	287	if (normals.size() > 0) {
	288	FBXImporter::LogError("ignoring additional normal layer");
	289	return;
	290	}
	291
	292	ReadVertexDataNormals(normals,source,
	293	MappingInformationType,
	294	ReferenceInformationType
	295	);
	296	}
	297	else if (type == "LayerElementTangent") {
	298	if (tangents.size() > 0) {
	299	FBXImporter::LogError("ignoring additional tangent layer");
	300	return;
	301	}
	302
	303	ReadVertexDataTangents(tangents,source,
	304	MappingInformationType,
	305	ReferenceInformationType
	306	);
	307	}
	308	else if (type == "LayerElementBinormal") {
	309	if (binormals.size() > 0) {
	310	FBXImporter::LogError("ignoring additional binormal layer");
	311	return;
	312	}
	313
	314	ReadVertexDataBinormals(binormals,source,
	315	MappingInformationType,
	316	ReferenceInformationType
	317	);
	318	}
	319	else if (type == "LayerElementColor") {
	320	if(index >= AI_MAX_NUMBER_OF_COLOR_SETS) {
	321	FBXImporter::LogError(Formatter::format("ignoring vertex color layer, maximum number of color sets exceeded: ")
	322	<< index << " (limit is " << AI_MAX_NUMBER_OF_COLOR_SETS << ")" );
	323	return;
	324	}
	325
	326	ReadVertexDataColors(colors[index],source,
	327	MappingInformationType,
	328	ReferenceInformationType
	329	);
	330	}
	331	}
	332
	333
	334	// ------------------------------------------------------------------------------------------------
	335	// Lengthy utility function to read and resolve a FBX vertex data array - that is, the
	336	// output is in polygon vertex order. This logic is used for reading normals, UVs, colors,
	337	// tangents ..
	338	template <typename T>
	339	void ResolveVertexDataArray(std::vector<T>& data_out, const Scope& source,
	340	const std::string& MappingInformationType,
	341	const std::string& ReferenceInformationType,
	342	const char* dataElementName,
	343	const char* indexDataElementName,
	344	size_t vertex_count,
	345	const std::vector<unsigned int>& mapping_counts,
	346	const std::vector<unsigned int>& mapping_offsets,
	347	const std::vector<unsigned int>& mappings)
	348	{
	349	std::vector<T> tempUV;
	350	ParseVectorDataArray(tempUV,GetRequiredElement(source,dataElementName));
	351
	352	// handle permutations of Mapping and Reference type - it would be nice to
	353	// deal with this more elegantly and with less redundancy, but right
	354	// now it seems unavoidable.
	355	if (MappingInformationType == "ByVertice" && ReferenceInformationType == "Direct") {
	356	data_out.resize(vertex_count);
	357	for (size_t i = 0, e = tempUV.size(); i < e; ++i) {
	358
	359	const unsigned int istart = mapping_offsets[i], iend = istart + mapping_counts[i];
	360	for (unsigned int j = istart; j < iend; ++j) {
	361	data_out[mappings[j]] = tempUV[i];
	362	}
	363	}
	364	}
	365	else if (MappingInformationType == "ByVertice" && ReferenceInformationType == "IndexToDirect") {
	366	data_out.resize(vertex_count);
	367
	368	std::vector<int> uvIndices;
	369	ParseVectorDataArray(uvIndices,GetRequiredElement(source,indexDataElementName));
	370
	371	for (size_t i = 0, e = uvIndices.size(); i < e; ++i) {
	372
	373	const unsigned int istart = mapping_offsets[i], iend = istart + mapping_counts[i];
	374	for (unsigned int j = istart; j < iend; ++j) {
	375	if(static_cast<size_t>(uvIndices[i]) >= tempUV.size()) {
	376	DOMError("index out of range",&GetRequiredElement(source,indexDataElementName));
	377	}
	378	data_out[mappings[j]] = tempUV[uvIndices[i]];
	379	}
	380	}
	381	}
	382	else if (MappingInformationType == "ByPolygonVertex" && ReferenceInformationType == "Direct") {
	383	if (tempUV.size() != vertex_count) {
	384	FBXImporter::LogError(Formatter::format("length of input data unexpected for ByPolygon mapping: ")
	385	<< tempUV.size() << ", expected " << vertex_count
	386	);
	387	return;
	388	}
	389
	390	data_out.swap(tempUV);
	391	}
	392	else if (MappingInformationType == "ByPolygonVertex" && ReferenceInformationType == "IndexToDirect") {
	393	data_out.resize(vertex_count);
	394
	395	std::vector<int> uvIndices;
	396	ParseVectorDataArray(uvIndices,GetRequiredElement(source,indexDataElementName));
	397
	398	if (uvIndices.size() != vertex_count) {
	399	FBXImporter::LogError("length of input data unexpected for ByPolygonVertex mapping");
	400	return;
	401	}
	402
	403	unsigned int next = 0;
	404	BOOST_FOREACH(int i, uvIndices) {
	405	if(static_cast<size_t>(i) >= tempUV.size()) {
	406	DOMError("index out of range",&GetRequiredElement(source,indexDataElementName));
	407	}
	408
	409	data_out[next++] = tempUV[i];
	410	}
	411	}
	412	else {
	413	FBXImporter::LogError(Formatter::format("ignoring vertex data channel, access type not implemented: ")
	414	<< MappingInformationType << "," << ReferenceInformationType);
	415	}
	416	}
	417
	418	// ------------------------------------------------------------------------------------------------
	419	void MeshGeometry::ReadVertexDataNormals(std::vector<aiVector3D>& normals_out, const Scope& source,
	420	const std::string& MappingInformationType,
	421	const std::string& ReferenceInformationType)
	422	{
	423	ResolveVertexDataArray(normals_out,source,MappingInformationType,ReferenceInformationType,
	424	"Normals",
	425	"NormalsIndex",
	426	vertices.size(),
	427	mapping_counts,
	428	mapping_offsets,
	429	mappings);
	430	}
	431
	432
	433	// ------------------------------------------------------------------------------------------------
	434	void MeshGeometry::ReadVertexDataUV(std::vector<aiVector2D>& uv_out, const Scope& source,
	435	const std::string& MappingInformationType,
	436	const std::string& ReferenceInformationType)
	437	{
	438	ResolveVertexDataArray(uv_out,source,MappingInformationType,ReferenceInformationType,
	439	"UV",
	440	"UVIndex",
	441	vertices.size(),
	442	mapping_counts,
	443	mapping_offsets,
	444	mappings);
	445	}
	446
	447
	448	// ------------------------------------------------------------------------------------------------
	449	void MeshGeometry::ReadVertexDataColors(std::vector<aiColor4D>& colors_out, const Scope& source,
	450	const std::string& MappingInformationType,
	451	const std::string& ReferenceInformationType)
	452	{
	453	ResolveVertexDataArray(colors_out,source,MappingInformationType,ReferenceInformationType,
	454	"Colors",
	455	"ColorIndex",
	456	vertices.size(),
	457	mapping_counts,
	458	mapping_offsets,
	459	mappings);
	460	}
	461
	462
	463	// ------------------------------------------------------------------------------------------------
	464	void MeshGeometry::ReadVertexDataTangents(std::vector<aiVector3D>& tangents_out, const Scope& source,
	465	const std::string& MappingInformationType,
	466	const std::string& ReferenceInformationType)
	467	{
	468	ResolveVertexDataArray(tangents_out,source,MappingInformationType,ReferenceInformationType,
	469	"Tangent",
	470	"TangentIndex",
	471	vertices.size(),
	472	mapping_counts,
	473	mapping_offsets,
	474	mappings);
	475	}
	476
	477
	478	// ------------------------------------------------------------------------------------------------
	479	void MeshGeometry::ReadVertexDataBinormals(std::vector<aiVector3D>& binormals_out, const Scope& source,
	480	const std::string& MappingInformationType,
	481	const std::string& ReferenceInformationType)
	482	{
	483	ResolveVertexDataArray(binormals_out,source,MappingInformationType,ReferenceInformationType,
	484	"Binormal",
	485	"BinormalIndex",
	486	vertices.size(),
	487	mapping_counts,
	488	mapping_offsets,
	489	mappings);
	490	}
	491
	492
	493	// ------------------------------------------------------------------------------------------------
	494	void MeshGeometry::ReadVertexDataMaterials(std::vector<int>& materials_out, const Scope& source,
	495	const std::string& MappingInformationType,
	496	const std::string& ReferenceInformationType)
	497	{
	498	const size_t face_count = faces.size();
	499	ai_assert(face_count);
	500
	501	// materials are handled separately. First of all, they are assigned per-face
	502	// and not per polyvert. Secondly, ReferenceInformationType=IndexToDirect
	503	// has a slightly different meaning for materials.
	504	ParseVectorDataArray(materials_out,GetRequiredElement(source,"Materials"));
	505
	506	if (MappingInformationType == "AllSame") {
	507	// easy - same material for all faces
	508	if (materials_out.empty()) {
	509	FBXImporter::LogError(Formatter::format("expected material index, ignoring"));
	510	return;
	511	}
	512	else if (materials_out.size() > 1) {
	513	FBXImporter::LogWarn(Formatter::format("expected only a single material index, ignoring all except the first one"));
	514	materials_out.clear();
	515	}
	516
	517	materials.assign(vertices.size(),materials_out[0]);
	518	}
	519	else if (MappingInformationType == "ByPolygon" && ReferenceInformationType == "IndexToDirect") {
	520	materials.resize(face_count);
	521
	522	if(materials_out.size() != face_count) {
	523	FBXImporter::LogError(Formatter::format("length of input data unexpected for ByPolygon mapping: ")
	524	<< materials_out.size() << ", expected " << face_count
	525	);
	526	return;
	527	}
	528	}
	529	else {
	530	FBXImporter::LogError(Formatter::format("ignoring material assignments, access type not implemented: ")
	531	<< MappingInformationType << "," << ReferenceInformationType);
	532	}
	533	}
	534
	535	} // !FBX
	536	} // !Assimp
	537
	538	#endif
	539

+156

-0

code/FBXModel.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXModel.cpp
	41	* @brief Assimp::FBX::Model implementation
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	#include "FBXParser.h"
	48	#include "FBXDocument.h"
	49	#include "FBXImporter.h"
	50	#include "FBXImportSettings.h"
	51	#include "FBXDocumentUtil.h"
	52	#include "FBXProperties.h"
	53
	54	namespace Assimp {
	55	namespace FBX {
	56
	57	using namespace Util;
	58
	59	// ------------------------------------------------------------------------------------------------
	60	Model::Model(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	61	: Object(id,element,name)
	62	, shading("Y")
	63	{
	64	const Scope& sc = GetRequiredScope(element);
	65	const Element* const Shading = sc["Shading"];
	66	const Element* const Culling = sc["Culling"];
	67
	68	if(Shading) {
	69	shading = GetRequiredToken(*Shading,0).StringContents();
	70	}
	71
	72	if (Culling) {
	73	culling = ParseTokenAsString(GetRequiredToken(*Culling,0));
	74	}
	75
	76	props = GetPropertyTable(doc,"Model.FbxNode",element,sc);
	77	ResolveLinks(element,doc);
	78	}
	79
	80
	81	// ------------------------------------------------------------------------------------------------
	82	Model::~Model()
	83	{
	84
	85	}
	86
	87
	88	// ------------------------------------------------------------------------------------------------
	89	void Model::ResolveLinks(const Element& element, const Document& doc)
	90	{
	91	const char* const arr[] = {"Geometry","Material","NodeAttribute"};
	92
	93	// resolve material
	94	const std::vector<const Connection*>& conns = doc.GetConnectionsByDestinationSequenced(ID(),arr, 3);
	95
	96	materials.reserve(conns.size());
	97	geometry.reserve(conns.size());
	98	attributes.reserve(conns.size());
	99	BOOST_FOREACH(const Connection* con, conns) {
	100
	101	// material and geometry links should be Object-Object connections
	102	if (con->PropertyName().length()) {
	103	continue;
	104	}
	105
	106	const Object* const ob = con->SourceObject();
	107	if(!ob) {
	108	DOMWarning("failed to read source object for incoming Model link, ignoring",&element);
	109	continue;
	110	}
	111
	112	const Material* const mat = dynamic_cast<const Material*>(ob);
	113	if(mat) {
	114	materials.push_back(mat);
	115	continue;
	116	}
	117
	118	const Geometry* const geo = dynamic_cast<const Geometry*>(ob);
	119	if(geo) {
	120	geometry.push_back(geo);
	121	continue;
	122	}
	123
	124	const NodeAttribute* const att = dynamic_cast<const NodeAttribute*>(ob);
	125	if(att) {
	126	attributes.push_back(att);
	127	continue;
	128	}
	129
	130	DOMWarning("source object for model link is neither Material, NodeAttribute nor Geometry, ignoring",&element);
	131	continue;
	132	}
	133	}
	134
	135
	136	// ------------------------------------------------------------------------------------------------
	137	bool Model::IsNull() const
	138	{
	139	const std::vector<const NodeAttribute*>& attrs = GetAttributes();
	140	BOOST_FOREACH(const NodeAttribute* att, attrs) {
	141
	142	const Null* null_tag = dynamic_cast<const Null*>(att);
	143	if(null_tag) {
	144	return true;
	145	}
	146	}
	147
	148	return false;
	149	}
	150
	151
	152	} //!FBX
	153	} //!Assimp
	154
	155	#endif

+173

-0

code/FBXNodeAttribute.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXNoteAttribute.cpp
	41	* @brief Assimp::FBX::NodeAttribute (and subclasses) implementation
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	#include "FBXParser.h"
	48	#include "FBXDocument.h"
	49	#include "FBXImporter.h"
	50	#include "FBXImportSettings.h"
	51	#include "FBXDocumentUtil.h"
	52	#include "FBXProperties.h"
	53
	54	namespace Assimp {
	55	namespace FBX {
	56
	57	using namespace Util;
	58
	59	// ------------------------------------------------------------------------------------------------
	60	NodeAttribute::NodeAttribute(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	61	: Object(id,element,name)
	62	{
	63	const Scope& sc = GetRequiredScope(element);
	64
	65	const std::string& classname = ParseTokenAsString(GetRequiredToken(element,2));
	66
	67	// hack on the deriving type but Null/LimbNode attributes are the only case in which
	68	// the property table is by design absent and no warning should be generated
	69	// for it.
	70	const bool is_null_or_limb = !strcmp(classname.c_str(), "Null") \|\| !strcmp(classname.c_str(), "LimbNode");
	71	props = GetPropertyTable(doc,"NodeAttribute.Fbx" + classname,element,sc, is_null_or_limb);
	72	}
	73
	74
	75	// ------------------------------------------------------------------------------------------------
	76	NodeAttribute::~NodeAttribute()
	77	{
	78
	79	}
	80
	81
	82	// ------------------------------------------------------------------------------------------------
	83	CameraSwitcher::CameraSwitcher(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	84	: NodeAttribute(id,element,doc,name)
	85	{
	86	const Scope& sc = GetRequiredScope(element);
	87	const Element* const CameraId = sc["CameraId"];
	88	const Element* const CameraName = sc["CameraName"];
	89	const Element* const CameraIndexName = sc["CameraIndexName"];
	90
	91	if(CameraId) {
	92	cameraId = ParseTokenAsInt(GetRequiredToken(*CameraId,0));
	93	}
	94
	95	if(CameraName) {
	96	cameraName = GetRequiredToken(*CameraName,0).StringContents();
	97	}
	98
	99	if(CameraIndexName && CameraIndexName->Tokens().size()) {
	100	cameraIndexName = GetRequiredToken(*CameraIndexName,0).StringContents();
	101	}
	102	}
	103
	104
	105	// ------------------------------------------------------------------------------------------------
	106	CameraSwitcher::~CameraSwitcher()
	107	{
	108
	109	}
	110
	111
	112	// ------------------------------------------------------------------------------------------------
	113	Camera::Camera(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	114	: NodeAttribute(id,element,doc,name)
	115	{
	116
	117	}
	118
	119
	120	// ------------------------------------------------------------------------------------------------
	121	Camera::~Camera()
	122	{
	123	}
	124
	125
	126	// ------------------------------------------------------------------------------------------------
	127	Light::Light(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	128	: NodeAttribute(id,element,doc,name)
	129	{
	130
	131	}
	132
	133
	134	// ------------------------------------------------------------------------------------------------
	135	Light::~Light()
	136	{
	137	}
	138
	139
	140	// ------------------------------------------------------------------------------------------------
	141	Null::Null(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	142	: NodeAttribute(id,element,doc,name)
	143	{
	144
	145	}
	146
	147
	148	// ------------------------------------------------------------------------------------------------
	149	Null::~Null()
	150	{
	151
	152	}
	153
	154
	155	// ------------------------------------------------------------------------------------------------
	156	LimbNode::LimbNode(uint64_t id, const Element& element, const Document& doc, const std::string& name)
	157	: NodeAttribute(id,element,doc,name)
	158	{
	159
	160	}
	161
	162
	163	// ------------------------------------------------------------------------------------------------
	164	LimbNode::~LimbNode()
	165	{
	166
	167	}
	168
	169	}
	170	}
	171
	172	#endif

+1218

-0

code/FBXParser.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXParser.cpp
	41	* @brief Implementation of the FBX parser and the rudimentary DOM that we use
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47
	48	#ifdef ASSIMP_BUILD_NO_OWN_ZLIB
	49	# include <zlib.h>
	50	#else
	51	# include "../contrib/zlib/zlib.h"
	52	#endif
	53
	54
	55	#include "FBXTokenizer.h"
	56	#include "FBXParser.h"
	57	#include "FBXUtil.h"
	58
	59	#include "ParsingUtils.h"
	60	#include "fast_atof.h"
	61
	62	using namespace Assimp;
	63	using namespace Assimp::FBX;
	64
	65	namespace {
	66
	67
	68	// ------------------------------------------------------------------------------------------------
	69	// signal parse error, this is always unrecoverable. Throws DeadlyImportError.
	70	void ParseError(const std::string& message, const Token& token)
	71	{
	72	throw DeadlyImportError(Util::AddTokenText("FBX-Parser",message,&token));
	73	}
	74
	75	// ------------------------------------------------------------------------------------------------
	76	void ParseError(const std::string& message, const Element* element = NULL)
	77	{
	78	if(element) {
	79	ParseError(message,element->KeyToken());
	80	}
	81	throw DeadlyImportError("FBX-Parser " + message);
	82	}
	83
	84
	85	// ------------------------------------------------------------------------------------------------
	86	// print warning, do return
	87	void ParseWarning(const std::string& message, const Token& token)
	88	{
	89	if(DefaultLogger::get()) {
	90	DefaultLogger::get()->warn(Util::AddTokenText("FBX-Parser",message,&token));
	91	}
	92	}
	93
	94	// ------------------------------------------------------------------------------------------------
	95	void ParseWarning(const std::string& message, const Element* element = NULL)
	96	{
	97	if(element) {
	98	ParseWarning(message,element->KeyToken());
	99	return;
	100	}
	101	if(DefaultLogger::get()) {
	102	DefaultLogger::get()->warn("FBX-Parser: " + message);
	103	}
	104	}
	105
	106	// ------------------------------------------------------------------------------------------------
	107	void ParseError(const std::string& message, TokenPtr token)
	108	{
	109	if(token) {
	110	ParseError(message, *token);
	111	}
	112	ParseError(message);
	113	}
	114
	115	}
	116
	117	namespace Assimp {
	118	namespace FBX {
	119
	120	// ------------------------------------------------------------------------------------------------
	121	Element::Element(const Token& key_token, Parser& parser)
	122	: key_token(key_token)
	123	{
	124	TokenPtr n = NULL;
	125	do {
	126	n = parser.AdvanceToNextToken();
	127	if(!n) {
	128	ParseError("unexpected end of file, expected closing bracket",parser.LastToken());
	129	}
	130
	131	if (n->Type() == TokenType_DATA) {
	132	tokens.push_back(n);
	133
	134	n = parser.AdvanceToNextToken();
	135	if(!n) {
	136	ParseError("unexpected end of file, expected bracket, comma or key",parser.LastToken());
	137	}
	138
	139	const TokenType ty = n->Type();
	140	if (ty != TokenType_OPEN_BRACKET && ty != TokenType_CLOSE_BRACKET && ty != TokenType_COMMA && ty != TokenType_KEY) {
	141	ParseError("unexpected token; expected bracket, comma or key",n);
	142	}
	143	}
	144
	145	if (n->Type() == TokenType_OPEN_BRACKET) {
	146	compound.reset(new Scope(parser));
	147
	148	// current token should be a TOK_CLOSE_BRACKET
	149	n = parser.CurrentToken();
	150	ai_assert(n);
	151
	152	if (n->Type() != TokenType_CLOSE_BRACKET) {
	153	ParseError("expected closing bracket",n);
	154	}
	155
	156	parser.AdvanceToNextToken();
	157	return;
	158	}
	159	}
	160	while(n->Type() != TokenType_KEY && n->Type() != TokenType_CLOSE_BRACKET);
	161	}
	162
	163	// ------------------------------------------------------------------------------------------------
	164	Element::~Element()
	165	{
	166	// no need to delete tokens, they are owned by the parser
	167	}
	168
	169	// ------------------------------------------------------------------------------------------------
	170	Scope::Scope(Parser& parser,bool topLevel)
	171	{
	172	if(!topLevel) {
	173	TokenPtr t = parser.CurrentToken();
	174	if (t->Type() != TokenType_OPEN_BRACKET) {
	175	ParseError("expected open bracket",t);
	176	}
	177	}
	178
	179	TokenPtr n = parser.AdvanceToNextToken();
	180	if(n == NULL) {
	181	ParseError("unexpected end of file");
	182	}
	183
	184	// note: empty scopes are allowed
	185	while(n->Type() != TokenType_CLOSE_BRACKET) {
	186	if (n->Type() != TokenType_KEY) {
	187	ParseError("unexpected token, expected TOK_KEY",n);
	188	}
	189
	190	const std::string& str = n->StringContents();
	191	elements.insert(ElementMap::value_type(str,new_Element(*n,parser)));
	192
	193	// Element() should stop at the next Key token (or right after a Close token)
	194	n = parser.CurrentToken();
	195	if(n == NULL) {
	196	if (topLevel) {
	197	return;
	198	}
	199	ParseError("unexpected end of file",parser.LastToken());
	200	}
	201	}
	202	}
	203
	204	// ------------------------------------------------------------------------------------------------
	205	Scope::~Scope()
	206	{
	207	BOOST_FOREACH(ElementMap::value_type& v, elements) {
	208	delete v.second;
	209	}
	210	}
	211
	212
	213	// ------------------------------------------------------------------------------------------------
	214	Parser::Parser (const TokenList& tokens, bool is_binary)
	215	: tokens(tokens)
	216	, last()
	217	, current()
	218	, cursor(tokens.begin())
	219	, is_binary(is_binary)
	220	{
	221	root.reset(new Scope(*this,true));
	222	}
	223
	224
	225	// ------------------------------------------------------------------------------------------------
	226	Parser::~Parser()
	227	{
	228	}
	229
	230
	231	// ------------------------------------------------------------------------------------------------
	232	TokenPtr Parser::AdvanceToNextToken()
	233	{
	234	last = current;
	235	if (cursor == tokens.end()) {
	236	current = NULL;
	237	}
	238	else {
	239	current = *cursor++;
	240	}
	241	return current;
	242	}
	243
	244
	245	// ------------------------------------------------------------------------------------------------
	246	TokenPtr Parser::CurrentToken() const
	247	{
	248	return current;
	249	}
	250
	251
	252	// ------------------------------------------------------------------------------------------------
	253	TokenPtr Parser::LastToken() const
	254	{
	255	return last;
	256	}
	257
	258
	259	// ------------------------------------------------------------------------------------------------
	260	uint64_t ParseTokenAsID(const Token& t, const char*& err_out)
	261	{
	262	err_out = NULL;
	263
	264	if (t.Type() != TokenType_DATA) {
	265	err_out = "expected TOK_DATA token";
	266	return 0L;
	267	}
	268
	269	if(t.IsBinary())
	270	{
	271	const char* data = t.begin();
	272	if (data[0] != 'L') {
	273	err_out = "failed to parse ID, unexpected data type, expected L(ong) (binary)";
	274	return 0L;
	275	}
	276
	277	ai_assert(t.end() - data == 9);
	278
	279	BE_NCONST uint64_t id = reinterpret_cast<const uint64_t>(data+1);
	280	AI_SWAP8(id);
	281	return id;
	282	}
	283
	284	// XXX: should use size_t here
	285	unsigned int length = static_cast<unsigned int>(t.end() - t.begin());
	286	ai_assert(length > 0);
	287
	288	const char* out;
	289	const uint64_t id = strtoul10_64(t.begin(),&out,&length);
	290	if (out > t.end()) {
	291	err_out = "failed to parse ID (text)";
	292	return 0L;
	293	}
	294
	295	return id;
	296	}
	297
	298
	299	// ------------------------------------------------------------------------------------------------
	300	size_t ParseTokenAsDim(const Token& t, const char*& err_out)
	301	{
	302	// same as ID parsing, except there is a trailing asterisk
	303	err_out = NULL;
	304
	305	if (t.Type() != TokenType_DATA) {
	306	err_out = "expected TOK_DATA token";
	307	return 0;
	308	}
	309
	310	if(t.IsBinary())
	311	{
	312	const char* data = t.begin();
	313	if (data[0] != 'L') {
	314	err_out = "failed to parse ID, unexpected data type, expected L(ong) (binary)";
	315	return 0;
	316	}
	317
	318	ai_assert(t.end() - data == 9);
	319	BE_NCONST uint64_t id = reinterpret_cast<const uint64_t>(data+1);
	320	AI_SWAP8(id);
	321	return static_cast<size_t>(id);
	322	}
	323
	324	if(t.begin() != '') {
	325	err_out = "expected asterisk before array dimension";
	326	return 0;
	327	}
	328
	329	// XXX: should use size_t here
	330	unsigned int length = static_cast<unsigned int>(t.end() - t.begin());
	331	if(length == 0) {
	332	err_out = "expected valid integer number after asterisk";
	333	return 0;
	334	}
	335
	336	const char* out;
	337	const size_t id = static_cast<size_t>(strtoul10_64(t.begin() + 1,&out,&length));
	338	if (out > t.end()) {
	339	err_out = "failed to parse ID";
	340	return 0;
	341	}
	342
	343	return id;
	344	}
	345
	346
	347	// ------------------------------------------------------------------------------------------------
	348	float ParseTokenAsFloat(const Token& t, const char*& err_out)
	349	{
	350	err_out = NULL;
	351
	352	if (t.Type() != TokenType_DATA) {
	353	err_out = "expected TOK_DATA token";
	354	return 0.0f;
	355	}
	356
	357	if(t.IsBinary())
	358	{
	359	const char* data = t.begin();
	360	if (data[0] != 'F' && data[0] != 'D') {
	361	err_out = "failed to parse F(loat) or D(ouble), unexpected data type (binary)";
	362	return 0.0f;
	363	}
	364
	365	if (data[0] == 'F') {
	366	// Actual size validation happens during Tokenization so
	367	// this is valid as an assertion.
	368	ai_assert(t.end() - data == sizeof(float) + 1);
	369	// Initially, we did reinterpret_cast, breaking strict aliasing rules.
	370	// This actually caused trouble on Android, so let's be safe this time.
	371	// https://github.com/assimp/assimp/issues/24
	372
	373	float out_float;
	374	::memcpy(&out_float, data+1, sizeof(float));
	375	return out_float;
	376	}
	377	else {
	378	ai_assert(t.end() - data == sizeof(double) + 1);
	379
	380	// Same
	381	double out_double;
	382	::memcpy(&out_double, data+1, sizeof(double));
	383	return static_cast<float>(out_double);
	384	}
	385	}
	386
	387	// need to copy the input string to a temporary buffer
	388	// first - next in the fbx token stream comes ',',
	389	// which fast_atof could interpret as decimal point.
	390	#define MAX_FLOAT_LENGTH 31
	391	char temp[MAX_FLOAT_LENGTH + 1];
	392	const size_t length = static_cast<size_t>(t.end()-t.begin());
	393	std::copy(t.begin(),t.end(),temp);
	394	temp[std::min(static_cast<size_t>(MAX_FLOAT_LENGTH),length)] = '\0';
	395
	396	return fast_atof(temp);
	397	}
	398
	399
	400	// ------------------------------------------------------------------------------------------------
	401	int ParseTokenAsInt(const Token& t, const char*& err_out)
	402	{
	403	err_out = NULL;
	404
	405	if (t.Type() != TokenType_DATA) {
	406	err_out = "expected TOK_DATA token";
	407	return 0;
	408	}
	409
	410	if(t.IsBinary())
	411	{
	412	const char* data = t.begin();
	413	if (data[0] != 'I') {
	414	err_out = "failed to parse I(nt), unexpected data type (binary)";
	415	return 0;
	416	}
	417
	418	ai_assert(t.end() - data == 5);
	419	BE_NCONST int32_t ival = reinterpret_cast<const int32_t>(data+1);
	420	AI_SWAP4(ival);
	421	return static_cast<int>(ival);
	422	}
	423
	424	ai_assert(static_cast<size_t>(t.end() - t.begin()) > 0);
	425
	426	const char* out;
	427	const int intval = strtol10(t.begin(),&out);
	428	if (out != t.end()) {
	429	err_out = "failed to parse ID";
	430	return 0;
	431	}
	432
	433	return intval;
	434	}
	435
	436
	437	// ------------------------------------------------------------------------------------------------
	438	std::string ParseTokenAsString(const Token& t, const char*& err_out)
	439	{
	440	err_out = NULL;
	441
	442	if (t.Type() != TokenType_DATA) {
	443	err_out = "expected TOK_DATA token";
	444	return "";
	445	}
	446
	447	if(t.IsBinary())
	448	{
	449	const char* data = t.begin();
	450	if (data[0] != 'S') {
	451	err_out = "failed to parse S(tring), unexpected data type (binary)";
	452	return "";
	453	}
	454
	455	ai_assert(t.end() - data >= 5);
	456
	457	// read string length
	458	BE_NCONST int32_t len = reinterpret_cast<const int32_t>(data+1);
	459	AI_SWAP4(len);
	460
	461	ai_assert(t.end() - data == 5 + len);
	462	return std::string(data + 5, len);
	463	}
	464
	465	const size_t length = static_cast<size_t>(t.end() - t.begin());
	466	if(length < 2) {
	467	err_out = "token is too short to hold a string";
	468	return "";
	469	}
	470
	471	const char* s = t.begin(), *e = t.end() - 1;
	472	if (s != '\"' \|\| e != '\"') {
	473	err_out = "expected double quoted string";
	474	return "";
	475	}
	476
	477	return std::string(s+1,length-2);
	478	}
	479
	480
	481	namespace {
	482
	483	// ------------------------------------------------------------------------------------------------
	484	// read the type code and element count of a binary data array and stop there
	485	void ReadBinaryDataArrayHead(const char& data, const char end, char& type, uint32_t& count,
	486	const Element& el)
	487	{
	488	if (static_cast<size_t>(end-data) < 5) {
	489	ParseError("binary data array is too short, need five (5) bytes for type signature and element count",&el);
	490	}
	491
	492	// data type
	493	type = *data;
	494
	495	// read number of elements
	496	BE_NCONST uint32_t len = reinterpret_cast<const uint32_t>(data+1);
	497	AI_SWAP4(len);
	498
	499	count = len;
	500	data += 5;
	501	}
	502
	503
	504	// ------------------------------------------------------------------------------------------------
	505	// read binary data array, assume cursor points to the 'compression mode' field (i.e. behind the header)
	506	void ReadBinaryDataArray(char type, uint32_t count, const char& data, const char end,
	507	std::vector<char>& buff,
	508	const Element& el)
	509	{
	510	ai_assert(static_cast<size_t>(end-data) >= 4); // runtime check for this happens at tokenization stage
	511
	512	BE_NCONST uint32_t encmode = reinterpret_cast<const uint32_t>(data);
	513	AI_SWAP4(encmode);
	514	data += 4;
	515
	516	// next comes the compressed length
	517	BE_NCONST uint32_t comp_len = reinterpret_cast<const uint32_t>(data);
	518	AI_SWAP4(comp_len);
	519	data += 4;
	520
	521	ai_assert(data + comp_len == end);
	522
	523	// determine the length of the uncompressed data by looking at the type signature
	524	uint32_t stride = 0;
	525	switch(type)
	526	{
	527	case 'f':
	528	case 'i':
	529	stride = 4;
	530	break;
	531
	532	case 'd':
	533	case 'l':
	534	stride = 8;
	535	break;
	536
	537	default:
	538	ai_assert(false);
	539	};
	540
	541	const uint32_t full_length = stride * count;
	542	buff.resize(full_length);
	543
	544	if(encmode == 0) {
	545	ai_assert(full_length == comp_len);
	546
	547	// plain data, no compression
	548	std::copy(data, end, buff.begin());
	549	}
	550	else if(encmode == 1) {
	551	// zlib/deflate, next comes ZIP head (0x78 0x01)
	552	// see http://www.ietf.org/rfc/rfc1950.txt
	553
	554	z_stream zstream;
	555	zstream.opaque = Z_NULL;
	556	zstream.zalloc = Z_NULL;
	557	zstream.zfree = Z_NULL;
	558	zstream.data_type = Z_BINARY;
	559
	560	// http://hewgill.com/journal/entries/349-how-to-decompress-gzip-stream-with-zlib
	561	inflateInit(&zstream);
	562
	563	zstream.next_in = reinterpret_cast<Bytef>( const_cast<char>(data) );
	564	zstream.avail_in = comp_len;
	565
	566	zstream.avail_out = buff.size();
	567	zstream.next_out = reinterpret_cast<Bytef>(&buff.begin());
	568	const int ret = inflate(&zstream, Z_FINISH);
	569
	570	if (ret != Z_STREAM_END && ret != Z_OK) {
	571	ParseError("failure decompressing compressed data section");
	572	}
	573
	574	// terminate zlib
	575	inflateEnd(&zstream);
	576	}
	577	#ifdef ASSIMP_BUILD_DEBUG
	578	else {
	579	// runtime check for this happens at tokenization stage
	580	ai_assert(false);
	581	}
	582	#endif
	583
	584	data += comp_len;
	585	ai_assert(data == end);
	586	}
	587
	588	} // !anon
	589
	590
	591	// ------------------------------------------------------------------------------------------------
	592	// read an array of float3 tuples
	593	void ParseVectorDataArray(std::vector<aiVector3D>& out, const Element& el)
	594	{
	595	out.clear();
	596
	597	const TokenList& tok = el.Tokens();
	598	if(tok.empty()) {
	599	ParseError("unexpected empty element",&el);
	600	}
	601
	602	if(tok[0]->IsBinary()) {
	603	const char* data = tok[0]->begin(), *end = tok[0]->end();
	604
	605	char type;
	606	uint32_t count;
	607	ReadBinaryDataArrayHead(data, end, type, count, el);
	608
	609	if(count % 3 != 0) {
	610	ParseError("number of floats is not a multiple of three (3) (binary)",&el);
	611	}
	612
	613	if(!count) {
	614	return;
	615	}
	616
	617	if (type != 'd' && type != 'f') {
	618	ParseError("expected float or double array (binary)",&el);
	619	}
	620
	621	std::vector<char> buff;
	622	ReadBinaryDataArray(type, count, data, end, buff, el);
	623
	624	ai_assert(data == end);
	625	ai_assert(buff.size() == count * (type == 'd' ? 8 : 4));
	626
	627	const uint32_t count3 = count / 3;
	628	out.reserve(count3);
	629
	630	if (type == 'd') {
	631	const double* d = reinterpret_cast<const double*>(&buff[0]);
	632	for (unsigned int i = 0; i < count3; ++i, d += 3) {
	633	out.push_back(aiVector3D(static_cast<float>(d[0]),
	634	static_cast<float>(d[1]),
	635	static_cast<float>(d[2])));
	636	}
	637	}
	638	else if (type == 'f') {
	639	const float* f = reinterpret_cast<const float*>(&buff[0]);
	640	for (unsigned int i = 0; i < count3; ++i, f += 3) {
	641	out.push_back(aiVector3D(f[0],f[1],f[2]));
	642	}
	643	}
	644
	645	return;
	646	}
	647
	648	const size_t dim = ParseTokenAsDim(*tok[0]);
	649
	650	// may throw bad_alloc if the input is rubbish, but this need
	651	// not to be prevented - importing would fail but we wouldn't
	652	// crash since assimp handles this case properly.
	653	out.reserve(dim);
	654
	655	const Scope& scope = GetRequiredScope(el);
	656	const Element& a = GetRequiredElement(scope,"a",&el);
	657
	658	if (a.Tokens().size() % 3 != 0) {
	659	ParseError("number of floats is not a multiple of three (3)",&el);
	660	}
	661	for (TokenList::const_iterator it = a.Tokens().begin(), end = a.Tokens().end(); it != end; ) {
	662	aiVector3D v;
	663	v.x = ParseTokenAsFloat(**it++);
	664	v.y = ParseTokenAsFloat(**it++);
	665	v.z = ParseTokenAsFloat(**it++);
	666
	667	out.push_back(v);
	668	}
	669	}
	670
	671
	672	// ------------------------------------------------------------------------------------------------
	673	// read an array of color4 tuples
	674	void ParseVectorDataArray(std::vector<aiColor4D>& out, const Element& el)
	675	{
	676	out.clear();
	677	const TokenList& tok = el.Tokens();
	678	if(tok.empty()) {
	679	ParseError("unexpected empty element",&el);
	680	}
	681
	682	if(tok[0]->IsBinary()) {
	683	const char* data = tok[0]->begin(), *end = tok[0]->end();
	684
	685	char type;
	686	uint32_t count;
	687	ReadBinaryDataArrayHead(data, end, type, count, el);
	688
	689	if(count % 4 != 0) {
	690	ParseError("number of floats is not a multiple of four (4) (binary)",&el);
	691	}
	692
	693	if(!count) {
	694	return;
	695	}
	696
	697	if (type != 'd' && type != 'f') {
	698	ParseError("expected float or double array (binary)",&el);
	699	}
	700
	701	std::vector<char> buff;
	702	ReadBinaryDataArray(type, count, data, end, buff, el);
	703
	704	ai_assert(data == end);
	705	ai_assert(buff.size() == count * (type == 'd' ? 8 : 4));
	706
	707	const uint32_t count4 = count / 4;
	708	out.reserve(count4);
	709
	710	if (type == 'd') {
	711	const double* d = reinterpret_cast<const double*>(&buff[0]);
	712	for (unsigned int i = 0; i < count4; ++i, d += 4) {
	713	out.push_back(aiColor4D(static_cast<float>(d[0]),
	714	static_cast<float>(d[1]),
	715	static_cast<float>(d[2]),
	716	static_cast<float>(d[3])));
	717	}
	718	}
	719	else if (type == 'f') {
	720	const float* f = reinterpret_cast<const float*>(&buff[0]);
	721	for (unsigned int i = 0; i < count4; ++i, f += 4) {
	722	out.push_back(aiColor4D(f[0],f[1],f[2],f[3]));
	723	}
	724	}
	725	return;
	726	}
	727
	728	const size_t dim = ParseTokenAsDim(*tok[0]);
	729
	730	// see notes in ParseVectorDataArray() above
	731	out.reserve(dim);
	732
	733	const Scope& scope = GetRequiredScope(el);
	734	const Element& a = GetRequiredElement(scope,"a",&el);
	735
	736	if (a.Tokens().size() % 4 != 0) {
	737	ParseError("number of floats is not a multiple of four (4)",&el);
	738	}
	739	for (TokenList::const_iterator it = a.Tokens().begin(), end = a.Tokens().end(); it != end; ) {
	740	aiColor4D v;
	741	v.r = ParseTokenAsFloat(**it++);
	742	v.g = ParseTokenAsFloat(**it++);
	743	v.b = ParseTokenAsFloat(**it++);
	744	v.a = ParseTokenAsFloat(**it++);
	745
	746	out.push_back(v);
	747	}
	748	}
	749
	750
	751	// ------------------------------------------------------------------------------------------------
	752	// read an array of float2 tuples
	753	void ParseVectorDataArray(std::vector<aiVector2D>& out, const Element& el)
	754	{
	755	out.clear();
	756	const TokenList& tok = el.Tokens();
	757	if(tok.empty()) {
	758	ParseError("unexpected empty element",&el);
	759	}
	760
	761	if(tok[0]->IsBinary()) {
	762	const char* data = tok[0]->begin(), *end = tok[0]->end();
	763
	764	char type;
	765	uint32_t count;
	766	ReadBinaryDataArrayHead(data, end, type, count, el);
	767
	768	if(count % 2 != 0) {
	769	ParseError("number of floats is not a multiple of two (2) (binary)",&el);
	770	}
	771
	772	if(!count) {
	773	return;
	774	}
	775
	776	if (type != 'd' && type != 'f') {
	777	ParseError("expected float or double array (binary)",&el);
	778	}
	779
	780	std::vector<char> buff;
	781	ReadBinaryDataArray(type, count, data, end, buff, el);
	782
	783	ai_assert(data == end);
	784	ai_assert(buff.size() == count * (type == 'd' ? 8 : 4));
	785
	786	const uint32_t count2 = count / 2;
	787	out.reserve(count2);
	788
	789	if (type == 'd') {
	790	const double* d = reinterpret_cast<const double*>(&buff[0]);
	791	for (unsigned int i = 0; i < count2; ++i, d += 2) {
	792	out.push_back(aiVector2D(static_cast<float>(d[0]),
	793	static_cast<float>(d[1])));
	794	}
	795	}
	796	else if (type == 'f') {
	797	const float* f = reinterpret_cast<const float*>(&buff[0]);
	798	for (unsigned int i = 0; i < count2; ++i, f += 2) {
	799	out.push_back(aiVector2D(f[0],f[1]));
	800	}
	801	}
	802
	803	return;
	804	}
	805
	806	const size_t dim = ParseTokenAsDim(*tok[0]);
	807
	808	// see notes in ParseVectorDataArray() above
	809	out.reserve(dim);
	810
	811	const Scope& scope = GetRequiredScope(el);
	812	const Element& a = GetRequiredElement(scope,"a",&el);
	813
	814	if (a.Tokens().size() % 2 != 0) {
	815	ParseError("number of floats is not a multiple of two (2)",&el);
	816	}
	817	for (TokenList::const_iterator it = a.Tokens().begin(), end = a.Tokens().end(); it != end; ) {
	818	aiVector2D v;
	819	v.x = ParseTokenAsFloat(**it++);
	820	v.y = ParseTokenAsFloat(**it++);
	821
	822	out.push_back(v);
	823	}
	824	}
	825
	826
	827	// ------------------------------------------------------------------------------------------------
	828	// read an array of ints
	829	void ParseVectorDataArray(std::vector<int>& out, const Element& el)
	830	{
	831	out.clear();
	832	const TokenList& tok = el.Tokens();
	833	if(tok.empty()) {
	834	ParseError("unexpected empty element",&el);
	835	}
	836
	837	if(tok[0]->IsBinary()) {
	838	const char* data = tok[0]->begin(), *end = tok[0]->end();
	839
	840	char type;
	841	uint32_t count;
	842	ReadBinaryDataArrayHead(data, end, type, count, el);
	843
	844	if(!count) {
	845	return;
	846	}
	847
	848	if (type != 'i') {
	849	ParseError("expected int array (binary)",&el);
	850	}
	851
	852	std::vector<char> buff;
	853	ReadBinaryDataArray(type, count, data, end, buff, el);
	854
	855	ai_assert(data == end);
	856	ai_assert(buff.size() == count * 4);
	857
	858	out.reserve(count);
	859
	860	const int32_t* ip = reinterpret_cast<const int32_t*>(&buff[0]);
	861	for (unsigned int i = 0; i < count; ++i, ++ip) {
	862	BE_NCONST int32_t val = *ip;
	863	AI_SWAP4(val);
	864	out.push_back(val);
	865	}
	866
	867	return;
	868	}
	869
	870	const size_t dim = ParseTokenAsDim(*tok[0]);
	871
	872	// see notes in ParseVectorDataArray()
	873	out.reserve(dim);
	874
	875	const Scope& scope = GetRequiredScope(el);
	876	const Element& a = GetRequiredElement(scope,"a",&el);
	877
	878	for (TokenList::const_iterator it = a.Tokens().begin(), end = a.Tokens().end(); it != end; ) {
	879	const int ival = ParseTokenAsInt(**it++);
	880	out.push_back(ival);
	881	}
	882	}
	883
	884
	885	// ------------------------------------------------------------------------------------------------
	886	// read an array of floats
	887	void ParseVectorDataArray(std::vector<float>& out, const Element& el)
	888	{
	889	out.clear();
	890	const TokenList& tok = el.Tokens();
	891	if(tok.empty()) {
	892	ParseError("unexpected empty element",&el);
	893	}
	894
	895	if(tok[0]->IsBinary()) {
	896	const char* data = tok[0]->begin(), *end = tok[0]->end();
	897
	898	char type;
	899	uint32_t count;
	900	ReadBinaryDataArrayHead(data, end, type, count, el);
	901
	902	if(!count) {
	903	return;
	904	}
	905
	906	if (type != 'd' && type != 'f') {
	907	ParseError("expected float or double array (binary)",&el);
	908	}
	909
	910	std::vector<char> buff;
	911	ReadBinaryDataArray(type, count, data, end, buff, el);
	912
	913	ai_assert(data == end);
	914	ai_assert(buff.size() == count * (type == 'd' ? 8 : 4));
	915
	916	if (type == 'd') {
	917	const double* d = reinterpret_cast<const double*>(&buff[0]);
	918	for (unsigned int i = 0; i < count; ++i, ++d) {
	919	out.push_back(static_cast<float>(*d));
	920	}
	921	}
	922	else if (type == 'f') {
	923	const float* f = reinterpret_cast<const float*>(&buff[0]);
	924	for (unsigned int i = 0; i < count; ++i, ++f) {
	925	out.push_back(*f);
	926	}
	927	}
	928
	929	return;
	930	}
	931
	932	const size_t dim = ParseTokenAsDim(*tok[0]);
	933
	934	// see notes in ParseVectorDataArray()
	935	out.reserve(dim);
	936
	937	const Scope& scope = GetRequiredScope(el);
	938	const Element& a = GetRequiredElement(scope,"a",&el);
	939
	940	for (TokenList::const_iterator it = a.Tokens().begin(), end = a.Tokens().end(); it != end; ) {
	941	const float ival = ParseTokenAsFloat(**it++);
	942	out.push_back(ival);
	943	}
	944	}
	945
	946
	947	// ------------------------------------------------------------------------------------------------
	948	// read an array of uints
	949	void ParseVectorDataArray(std::vector<unsigned int>& out, const Element& el)
	950	{
	951	out.clear();
	952	const TokenList& tok = el.Tokens();
	953	if(tok.empty()) {
	954	ParseError("unexpected empty element",&el);
	955	}
	956
	957	if(tok[0]->IsBinary()) {
	958	const char* data = tok[0]->begin(), *end = tok[0]->end();
	959
	960	char type;
	961	uint32_t count;
	962	ReadBinaryDataArrayHead(data, end, type, count, el);
	963
	964	if(!count) {
	965	return;
	966	}
	967
	968	if (type != 'i') {
	969	ParseError("expected (u)int array (binary)",&el);
	970	}
	971
	972	std::vector<char> buff;
	973	ReadBinaryDataArray(type, count, data, end, buff, el);
	974
	975	ai_assert(data == end);
	976	ai_assert(buff.size() == count * 4);
	977
	978	out.reserve(count);
	979
	980	const int32_t* ip = reinterpret_cast<const int32_t*>(&buff[0]);
	981	for (unsigned int i = 0; i < count; ++i, ++ip) {
	982	BE_NCONST int32_t val = *ip;
	983	if(val < 0) {
	984	ParseError("encountered negative integer index (binary)");
	985	}
	986
	987	AI_SWAP4(val);
	988	out.push_back(val);
	989	}
	990
	991	return;
	992	}
	993
	994	const size_t dim = ParseTokenAsDim(*tok[0]);
	995
	996	// see notes in ParseVectorDataArray()
	997	out.reserve(dim);
	998
	999	const Scope& scope = GetRequiredScope(el);
	1000	const Element& a = GetRequiredElement(scope,"a",&el);
	1001
	1002	for (TokenList::const_iterator it = a.Tokens().begin(), end = a.Tokens().end(); it != end; ) {
	1003	const int ival = ParseTokenAsInt(**it++);
	1004	if(ival < 0) {
	1005	ParseError("encountered negative integer index");
	1006	}
	1007	out.push_back(static_cast<unsigned int>(ival));
	1008	}
	1009	}
	1010
	1011
	1012	// ------------------------------------------------------------------------------------------------
	1013	// read an array of uint64_ts
	1014	void ParseVectorDataArray(std::vector<uint64_t>& out, const Element& el)
	1015	{
	1016	out.clear();
	1017	const TokenList& tok = el.Tokens();
	1018	if(tok.empty()) {
	1019	ParseError("unexpected empty element",&el);
	1020	}
	1021
	1022	if(tok[0]->IsBinary()) {
	1023	const char* data = tok[0]->begin(), *end = tok[0]->end();
	1024
	1025	char type;
	1026	uint32_t count;
	1027	ReadBinaryDataArrayHead(data, end, type, count, el);
	1028
	1029	if(!count) {
	1030	return;
	1031	}
	1032
	1033	if (type != 'l') {
	1034	ParseError("expected long array (binary)",&el);
	1035	}
	1036
	1037	std::vector<char> buff;
	1038	ReadBinaryDataArray(type, count, data, end, buff, el);
	1039
	1040	ai_assert(data == end);
	1041	ai_assert(buff.size() == count * 8);
	1042
	1043	out.reserve(count);
	1044
	1045	const uint64_t* ip = reinterpret_cast<const uint64_t*>(&buff[0]);
	1046	for (unsigned int i = 0; i < count; ++i, ++ip) {
	1047	BE_NCONST uint64_t val = *ip;
	1048	AI_SWAP8(val);
	1049	out.push_back(val);
	1050	}
	1051
	1052	return;
	1053	}
	1054
	1055	const size_t dim = ParseTokenAsDim(*tok[0]);
	1056
	1057	// see notes in ParseVectorDataArray()
	1058	out.reserve(dim);
	1059
	1060	const Scope& scope = GetRequiredScope(el);
	1061	const Element& a = GetRequiredElement(scope,"a",&el);
	1062
	1063	for (TokenList::const_iterator it = a.Tokens().begin(), end = a.Tokens().end(); it != end; ) {
	1064	const uint64_t ival = ParseTokenAsID(**it++);
	1065
	1066	out.push_back(ival);
	1067	}
	1068	}
	1069
	1070
	1071	// ------------------------------------------------------------------------------------------------
	1072	aiMatrix4x4 ReadMatrix(const Element& element)
	1073	{
	1074	std::vector<float> values;
	1075	ParseVectorDataArray(values,element);
	1076
	1077	if(values.size() != 16) {
	1078	ParseError("expected 16 matrix elements");
	1079	}
	1080
	1081	aiMatrix4x4 result;
	1082
	1083
	1084	result.a1 = values[0];
	1085	result.a2 = values[1];
	1086	result.a3 = values[2];
	1087	result.a4 = values[3];
	1088
	1089	result.b1 = values[4];
	1090	result.b2 = values[5];
	1091	result.b3 = values[6];
	1092	result.b4 = values[7];
	1093
	1094	result.c1 = values[8];
	1095	result.c2 = values[9];
	1096	result.c3 = values[10];
	1097	result.c4 = values[11];
	1098
	1099	result.d1 = values[12];
	1100	result.d2 = values[13];
	1101	result.d3 = values[14];
	1102	result.d4 = values[15];
	1103
	1104	result.Transpose();
	1105	return result;
	1106	}
	1107
	1108
	1109	// ------------------------------------------------------------------------------------------------
	1110	// wrapper around ParseTokenAsString() with ParseError handling
	1111	std::string ParseTokenAsString(const Token& t)
	1112	{
	1113	const char* err;
	1114	const std::string& i = ParseTokenAsString(t,err);
	1115	if(err) {
	1116	ParseError(err,t);
	1117	}
	1118	return i;
	1119	}
	1120
	1121
	1122	// ------------------------------------------------------------------------------------------------
	1123	// extract a required element from a scope, abort if the element cannot be found
	1124	const Element& GetRequiredElement(const Scope& sc, const std::string& index, const Element* element /= NULL/)
	1125	{
	1126	const Element* el = sc[index];
	1127	if(!el) {
	1128	ParseError("did not find required element \"" + index + "\"",element);
	1129	}
	1130	return *el;
	1131	}
	1132
	1133
	1134	// ------------------------------------------------------------------------------------------------
	1135	// extract required compound scope
	1136	const Scope& GetRequiredScope(const Element& el)
	1137	{
	1138	const Scope* const s = el.Compound();
	1139	if(!s) {
	1140	ParseError("expected compound scope",&el);
	1141	}
	1142
	1143	return *s;
	1144	}
	1145
	1146
	1147	// ------------------------------------------------------------------------------------------------
	1148	// get token at a particular index
	1149	const Token& GetRequiredToken(const Element& el, unsigned int index)
	1150	{
	1151	const TokenList& t = el.Tokens();
	1152	if(index >= t.size()) {
	1153	ParseError(Formatter::format( "missing token at index " ) << index,&el);
	1154	}
	1155
	1156	return *t[index];
	1157	}
	1158
	1159
	1160	// ------------------------------------------------------------------------------------------------
	1161	// wrapper around ParseTokenAsID() with ParseError handling
	1162	uint64_t ParseTokenAsID(const Token& t)
	1163	{
	1164	const char* err;
	1165	const uint64_t i = ParseTokenAsID(t,err);
	1166	if(err) {
	1167	ParseError(err,t);
	1168	}
	1169	return i;
	1170	}
	1171
	1172
	1173	// ------------------------------------------------------------------------------------------------
	1174	// wrapper around ParseTokenAsDim() with ParseError handling
	1175	size_t ParseTokenAsDim(const Token& t)
	1176	{
	1177	const char* err;
	1178	const size_t i = ParseTokenAsDim(t,err);
	1179	if(err) {
	1180	ParseError(err,t);
	1181	}
	1182	return i;
	1183	}
	1184
	1185
	1186	// ------------------------------------------------------------------------------------------------
	1187	// wrapper around ParseTokenAsFloat() with ParseError handling
	1188	float ParseTokenAsFloat(const Token& t)
	1189	{
	1190	const char* err;
	1191	const float i = ParseTokenAsFloat(t,err);
	1192	if(err) {
	1193	ParseError(err,t);
	1194	}
	1195	return i;
	1196	}
	1197
	1198
	1199	// ------------------------------------------------------------------------------------------------
	1200	// wrapper around ParseTokenAsInt() with ParseError handling
	1201	int ParseTokenAsInt(const Token& t)
	1202	{
	1203	const char* err;
	1204	const int i = ParseTokenAsInt(t,err);
	1205	if(err) {
	1206	ParseError(err,t);
	1207	}
	1208	return i;
	1209	}
	1210
	1211
	1212
	1213	} // !FBX
	1214	} // !Assimp
	1215
	1216	#endif
	1217

+246

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code/FBXParser.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXParser.h
	41	* @brief FBX parsing code
	42	*/
	43	#ifndef INCLUDED_AI_FBX_PARSER_H
	44	#define INCLUDED_AI_FBX_PARSER_H
	45
	46	#include <vector>
	47	#include <map>
	48	#include <string>
	49	#include <utility>
	50
	51	#include <boost/shared_ptr.hpp>
	52
	53	#include "LogAux.h"
	54
	55	#include "FBXCompileConfig.h"
	56	#include "FBXTokenizer.h"
	57
	58	namespace Assimp {
	59	namespace FBX {
	60
	61	class Scope;
	62	class Parser;
	63	class Element;
	64
	65	// XXX should use C++11's unique_ptr - but assimp's need to keep working with 03
	66	typedef std::vector< Scope* > ScopeList;
	67	typedef std::fbx_unordered_multimap< std::string, Element* > ElementMap;
	68
	69	typedef std::pair<ElementMap::const_iterator,ElementMap::const_iterator> ElementCollection;
	70
	71	# define new_Scope new Scope
	72	# define new_Element new Element
	73
	74
	75	/** FBX data entity that consists of a key:value tuple.
	76	*
	77	* Example:
	78	* @verbatim
	79	* AnimationCurve: 23, "AnimCurve::", "" {
	80	* [..]
	81	* }
	82	* @endverbatim
	83	*
	84	* As can be seen in this sample, elements can contain nested #Scope
	85	* as their trailing member. **/
	86	class Element
	87	{
	88	public:
	89
	90	Element(const Token& key_token, Parser& parser);
	91	~Element();
	92
	93	public:
	94
	95	const Scope* Compound() const {
	96	return compound.get();
	97	}
	98
	99	const Token& KeyToken() const {
	100	return key_token;
	101	}
	102
	103	const TokenList& Tokens() const {
	104	return tokens;
	105	}
	106
	107	private:
	108
	109	const Token& key_token;
	110	TokenList tokens;
	111	boost::scoped_ptr<Scope> compound;
	112	};
	113
	114
	115
	116	/** FBX data entity that consists of a 'scope', a collection
	117	* of not necessarily unique #Element instances.
	118	*
	119	* Example:
	120	* @verbatim
	121	* GlobalSettings: {
	122	* Version: 1000
	123	* Properties70:
	124	* [...]
	125	* }
	126	* @endverbatim */
	127	class Scope
	128	{
	129
	130	public:
	131
	132	Scope(Parser& parser, bool topLevel = false);
	133	~Scope();
	134
	135	public:
	136
	137	const Element* operator[] (const std::string& index) const {
	138	ElementMap::const_iterator it = elements.find(index);
	139	return it == elements.end() ? NULL : (*it).second;
	140	}
	141
	142	ElementCollection GetCollection(const std::string& index) const {
	143	return elements.equal_range(index);
	144	}
	145
	146	const ElementMap& Elements() const {
	147	return elements;
	148	}
	149
	150	private:
	151
	152	ElementMap elements;
	153	};
	154
	155
	156	/** FBX parsing class, takes a list of input tokens and generates a hierarchy
	157	* of nested #Scope instances, representing the fbx DOM.*/
	158	class Parser
	159	{
	160	public:
	161
	162	/** Parse given a token list. Does not take ownership of the tokens -
	163	* the objects must persist during the entire parser lifetime */
	164	Parser (const TokenList& tokens,bool is_binary);
	165	~Parser();
	166
	167	public:
	168
	169	const Scope& GetRootScope() const {
	170	return *root.get();
	171	}
	172
	173
	174	bool IsBinary() const {
	175	return is_binary;
	176	}
	177
	178	private:
	179
	180	friend class Scope;
	181	friend class Element;
	182
	183	TokenPtr AdvanceToNextToken();
	184
	185	TokenPtr LastToken() const;
	186	TokenPtr CurrentToken() const;
	187
	188
	189
	190	private:
	191
	192	const TokenList& tokens;
	193
	194	TokenPtr last, current;
	195	TokenList::const_iterator cursor;
	196	boost::scoped_ptr<Scope> root;
	197
	198	const bool is_binary;
	199	};
	200
	201
	202	/* token parsing - this happens when building the DOM out of the parse-tree*/
	203	uint64_t ParseTokenAsID(const Token& t, const char*& err_out);
	204	size_t ParseTokenAsDim(const Token& t, const char*& err_out);
	205
	206	float ParseTokenAsFloat(const Token& t, const char*& err_out);
	207	int ParseTokenAsInt(const Token& t, const char*& err_out);
	208	std::string ParseTokenAsString(const Token& t, const char*& err_out);
	209
	210
	211	/* wrapper around ParseTokenAsXXX() with DOMError handling */
	212	uint64_t ParseTokenAsID(const Token& t);
	213	size_t ParseTokenAsDim(const Token& t);
	214	float ParseTokenAsFloat(const Token& t);
	215	int ParseTokenAsInt(const Token& t);
	216	std::string ParseTokenAsString(const Token& t);
	217
	218	/* read data arrays */
	219	void ParseVectorDataArray(std::vector<aiVector3D>& out, const Element& el);
	220	void ParseVectorDataArray(std::vector<aiColor4D>& out, const Element& el);
	221	void ParseVectorDataArray(std::vector<aiVector2D>& out, const Element& el);
	222	void ParseVectorDataArray(std::vector<int>& out, const Element& el);
	223	void ParseVectorDataArray(std::vector<float>& out, const Element& el);
	224	void ParseVectorDataArray(std::vector<unsigned int>& out, const Element& el);
	225	void ParseVectorDataArray(std::vector<uint64_t>& out, const Element& e);
	226
	227
	228
	229	// extract a required element from a scope, abort if the element cannot be found
	230	const Element& GetRequiredElement(const Scope& sc, const std::string& index, const Element* element = NULL);
	231
	232	// extract required compound scope
	233	const Scope& GetRequiredScope(const Element& el);
	234	// get token at a particular index
	235	const Token& GetRequiredToken(const Element& el, unsigned int index);
	236
	237
	238
	239	// read a 4x4 matrix from an array of 16 floats
	240	aiMatrix4x4 ReadMatrix(const Element& element);
	241
	242	} // ! FBX
	243	} // ! Assimp
	244
	245	#endif // ! INCLUDED_AI_FBX_PARSER_H

+234

-0

code/FBXProperties.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXProperties.cpp
	41	* @brief Implementation of the FBX dynamic properties system
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	#include "FBXTokenizer.h"
	48	#include "FBXParser.h"
	49	#include "FBXDocument.h"
	50	#include "FBXDocumentUtil.h"
	51	#include "FBXProperties.h"
	52
	53	namespace Assimp {
	54	namespace FBX {
	55
	56	using namespace Util;
	57
	58	// ------------------------------------------------------------------------------------------------
	59	Property::Property()
	60	{
	61	}
	62
	63	// ------------------------------------------------------------------------------------------------
	64	Property::~Property()
	65	{
	66	}
	67
	68	namespace {
	69
	70	// ------------------------------------------------------------------------------------------------
	71	// read a typed property out of a FBX element. The return value is NULL if the property cannot be read.
	72	Property* ReadTypedProperty(const Element& element)
	73	{
	74	ai_assert(element.KeyToken().StringContents() == "P");
	75
	76	const TokenList& tok = element.Tokens();
	77	ai_assert(tok.size() >= 5);
	78
	79	const std::string& s = ParseTokenAsString(*tok[1]);
	80	const char* const cs = s.c_str();
	81	if (!strcmp(cs,"KString")) {
	82	return new TypedProperty<std::string>(ParseTokenAsString(*tok[4]));
	83	}
	84	else if (!strcmp(cs,"bool") \|\| !strcmp(cs,"Bool")) {
	85	return new TypedProperty<bool>(ParseTokenAsInt(*tok[4]) != 0);
	86	}
	87	else if (!strcmp(cs,"int") \|\| !strcmp(cs,"enum")) {
	88	return new TypedProperty<int>(ParseTokenAsInt(*tok[4]));
	89	}
	90	else if (!strcmp(cs,"ULongLong")) {
	91	return new TypedProperty<uint64_t>(ParseTokenAsID(*tok[4]));
	92	}
	93	else if (!strcmp(cs,"Vector3D") \|\|
	94	!strcmp(cs,"ColorRGB") \|\|
	95	!strcmp(cs,"Vector") \|\|
	96	!strcmp(cs,"Color") \|\|
	97	!strcmp(cs,"Lcl Translation") \|\|
	98	!strcmp(cs,"Lcl Rotation") \|\|
	99	!strcmp(cs,"Lcl Scaling")
	100	) {
	101	return new TypedProperty<aiVector3D>(aiVector3D(
	102	ParseTokenAsFloat(*tok[4]),
	103	ParseTokenAsFloat(*tok[5]),
	104	ParseTokenAsFloat(*tok[6]))
	105	);
	106	}
	107	else if (!strcmp(cs,"double") \|\| !strcmp(cs,"Number") \|\| !strcmp(cs,"KTime") \|\| !strcmp(cs,"Float")) {
	108	return new TypedProperty<float>(ParseTokenAsFloat(*tok[4]));
	109	}
	110	return NULL;
	111	}
	112
	113
	114	// ------------------------------------------------------------------------------------------------
	115	// peek into an element and check if it contains a FBX property, if so return its name.
	116	std::string PeekPropertyName(const Element& element)
	117	{
	118	ai_assert(element.KeyToken().StringContents() == "P");
	119	const TokenList& tok = element.Tokens();
	120	if(tok.size() < 4) {
	121	return "";
	122	}
	123
	124	return ParseTokenAsString(*tok[0]);
	125	}
	126
	127	} //! anon
	128
	129
	130	// ------------------------------------------------------------------------------------------------
	131	PropertyTable::PropertyTable()
	132	: templateProps()
	133	, element()
	134	{
	135	}
	136
	137
	138	// ------------------------------------------------------------------------------------------------
	139	PropertyTable::PropertyTable(const Element& element, boost::shared_ptr<const PropertyTable> templateProps)
	140	: templateProps(templateProps)
	141	, element(&element)
	142	{
	143	const Scope& scope = GetRequiredScope(element);
	144	BOOST_FOREACH(const ElementMap::value_type& v, scope.Elements()) {
	145	if(v.first != "P") {
	146	DOMWarning("expected only P elements in property table",v.second);
	147	continue;
	148	}
	149
	150	const std::string& name = PeekPropertyName(*v.second);
	151	if(!name.length()) {
	152	DOMWarning("could not read property name",v.second);
	153	continue;
	154	}
	155
	156	LazyPropertyMap::const_iterator it = lazyProps.find(name);
	157	if (it != lazyProps.end()) {
	158	DOMWarning("duplicate property name, will hide previous value: " + name,v.second);
	159	continue;
	160	}
	161
	162	lazyProps[name] = v.second;
	163	}
	164	}
	165
	166
	167	// ------------------------------------------------------------------------------------------------
	168	PropertyTable::~PropertyTable()
	169	{
	170	BOOST_FOREACH(PropertyMap::value_type& v, props) {
	171	delete v.second;
	172	}
	173	}
	174
	175
	176	// ------------------------------------------------------------------------------------------------
	177	const Property* PropertyTable::Get(const std::string& name) const
	178	{
	179	PropertyMap::const_iterator it = props.find(name);
	180	if (it == props.end()) {
	181	// hasn't been parsed yet?
	182	LazyPropertyMap::const_iterator lit = lazyProps.find(name);
	183	if(lit != lazyProps.end()) {
	184	props[name] = ReadTypedProperty((lit).second);
	185	it = props.find(name);
	186
	187	ai_assert(it != props.end());
	188	}
	189
	190	if (it == props.end()) {
	191	// check property template
	192	if(templateProps) {
	193	return templateProps->Get(name);
	194	}
	195
	196	return NULL;
	197	}
	198	}
	199
	200	return (*it).second;
	201	}
	202
	203	DirectPropertyMap PropertyTable::GetUnparsedProperties() const
	204	{
	205	DirectPropertyMap result;
	206
	207	// Loop through all the lazy properties (which is all the properties)
	208	BOOST_FOREACH(const LazyPropertyMap::value_type& element, lazyProps) {
	209
	210	// Skip parsed properties
	211	if (props.end() != props.find(element.first)) continue;
	212
	213	// Read the element's value.
	214	// Wrap the naked pointer (since the call site is required to acquire ownership)
	215	// std::unique_ptr from C++11 would be preferred both as a wrapper and a return value.
	216	boost::shared_ptr<Property> prop = boost::shared_ptr<Property>(ReadTypedProperty(*element.second));
	217
	218	// Element could not be read. Skip it.
	219	if (!prop) continue;
	220
	221	// Add to result
	222	result[element.first] = prop;
	223	}
	224
	225	return result;
	226	}
	227
	228
	229
	230	} //! FBX
	231	} //! Assimp
	232
	233	#endif

+191

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code/FBXProperties.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXProperties.h
	41	* @brief FBX dynamic properties
	42	*/
	43	#ifndef INCLUDED_AI_FBX_PROPERTIES_H
	44	#define INCLUDED_AI_FBX_PROPERTIES_H
	45
	46	#include <map>
	47	#include <string>
	48
	49	namespace Assimp {
	50	namespace FBX {
	51
	52	class Element;
	53
	54
	55	/** Represents a dynamic property. Type info added by deriving classes,
	56	* see #TypedProperty.
	57	Example:
	58	@verbatim
	59	P: "ShininessExponent", "double", "Number", "",0.5
	60	@endvebatim
	61
	62	*/
	63	class Property
	64	{
	65	protected:
	66
	67	Property();
	68
	69	public:
	70
	71	virtual ~Property();
	72
	73	public:
	74
	75	template <typename T>
	76	const T* As() const {
	77	return dynamic_cast<const T*>(this);
	78	}
	79	};
	80
	81
	82	template<typename T>
	83	class TypedProperty : public Property
	84	{
	85	public:
	86
	87	TypedProperty(const T& value)
	88	: value(value)
	89	{
	90	}
	91
	92	public:
	93
	94	const T& Value() const {
	95	return value;
	96	}
	97
	98	private:
	99	T value;
	100	};
	101
	102
	103	typedef std::fbx_unordered_map<std::string,boost::shared_ptr<Property> > DirectPropertyMap;
	104	typedef std::fbx_unordered_map<std::string,const Property*> PropertyMap;
	105	typedef std::fbx_unordered_map<std::string,const Element*> LazyPropertyMap;
	106
	107	/** Represents a property table as can be found in the newer FBX files (Properties60, Properties70)*/
	108	class PropertyTable
	109	{
	110	public:
	111
	112	// in-memory property table with no source element
	113	PropertyTable();
	114
	115	PropertyTable(const Element& element, boost::shared_ptr<const PropertyTable> templateProps);
	116	~PropertyTable();
	117
	118	public:
	119
	120	const Property* Get(const std::string& name) const;
	121
	122	// PropertyTable's need not be coupled with FBX elements so this can be NULL
	123	const Element* GetElement() const {
	124	return element;
	125	}
	126
	127	const PropertyTable* TemplateProps() const {
	128	return templateProps.get();
	129	}
	130
	131	DirectPropertyMap GetUnparsedProperties() const;
	132
	133	private:
	134
	135	LazyPropertyMap lazyProps;
	136	mutable PropertyMap props;
	137	const boost::shared_ptr<const PropertyTable> templateProps;
	138	const Element* const element;
	139	};
	140
	141
	142	// ------------------------------------------------------------------------------------------------
	143	template <typename T>
	144	inline T PropertyGet(const PropertyTable& in, const std::string& name,
	145	const T& defaultValue,
	146	bool ignoreTemplate = false)
	147	{
	148	const Property* const prop = in.Get(name);
	149	if(!prop) {
	150	return defaultValue;
	151	}
	152
	153	// strong typing, no need to be lenient
	154	const TypedProperty<T>* const tprop = prop->As< TypedProperty<T> >();
	155	if(!tprop) {
	156	return defaultValue;
	157	}
	158
	159	return tprop->Value();
	160	}
	161
	162
	163	// ------------------------------------------------------------------------------------------------
	164	template <typename T>
	165	inline T PropertyGet(const PropertyTable& in, const std::string& name,
	166	bool& result,
	167	bool ignoreTemplate = false)
	168	{
	169	const Property* const prop = in.Get(name);
	170	if(!prop) {
	171	result = false;
	172	return T();
	173	}
	174
	175	// strong typing, no need to be lenient
	176	const TypedProperty<T>* const tprop = prop->As< TypedProperty<T> >();
	177	if(!tprop) {
	178	result = false;
	179	return T();
	180	}
	181
	182	result = true;
	183	return tprop->Value();
	184	}
	185
	186
	187	} //! FBX
	188	} //! Assimp
	189
	190	#endif //

+246

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code/FBXTokenizer.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXTokenizer.cpp
	41	* @brief Implementation of the FBX broadphase lexer
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	46
	47	// tab width for logging columns
	48	#define ASSIMP_FBX_TAB_WIDTH 4
	49
	50	#include "ParsingUtils.h"
	51
	52	#include "FBXTokenizer.h"
	53	#include "FBXUtil.h"
	54
	55	namespace Assimp {
	56	namespace FBX {
	57
	58	// ------------------------------------------------------------------------------------------------
	59	Token::Token(const char* sbegin, const char* send, TokenType type, unsigned int line, unsigned int column)
	60	: sbegin(sbegin)
	61	, send(send)
	62	, type(type)
	63	, line(line)
	64	, column(column)
	65	#ifdef DEBUG
	66	, contents(sbegin, static_cast<size_t>(send-sbegin))
	67	#endif
	68	{
	69	ai_assert(sbegin);
	70	ai_assert(send);
	71
	72	// tokens must be of non-zero length
	73	ai_assert(static_cast<size_t>(send-sbegin) > 0);
	74	}
	75
	76
	77	// ------------------------------------------------------------------------------------------------
	78	Token::~Token()
	79	{
	80	}
	81
	82
	83	namespace {
	84
	85	// ------------------------------------------------------------------------------------------------
	86	// signal tokenization error, this is always unrecoverable. Throws DeadlyImportError.
	87	void TokenizeError(const std::string& message, unsigned int line, unsigned int column)
	88	{
	89	throw DeadlyImportError(Util::AddLineAndColumn("FBX-Tokenize",message,line,column));
	90	}
	91
	92
	93	// process a potential data token up to 'cur', adding it to 'output_tokens'.
	94	// ------------------------------------------------------------------------------------------------
	95	void ProcessDataToken( TokenList& output_tokens, const char& start, const char& end,
	96	unsigned int line,
	97	unsigned int column,
	98	TokenType type = TokenType_DATA,
	99	bool must_have_token = false)
	100	{
	101	if (start && end) {
	102	// sanity check:
	103	// tokens should have no whitespace outside quoted text and [start,end] should
	104	// properly delimit the valid range.
	105	bool in_double_quotes = false;
	106	for (const char* c = start; c != end + 1; ++c) {
	107	if (*c == '\"') {
	108	in_double_quotes = !in_double_quotes;
	109	}
	110
	111	if (!in_double_quotes && IsSpaceOrNewLine(*c)) {
	112	TokenizeError("unexpected whitespace in token", line, column);
	113	}
	114	}
	115
	116	if (in_double_quotes) {
	117	TokenizeError("non-terminated double quotes", line, column);
	118	}
	119
	120	output_tokens.push_back(new_Token(start,end + 1,type,line,column));
	121	}
	122	else if (must_have_token) {
	123	TokenizeError("unexpected character, expected data token", line, column);
	124	}
	125
	126	start = end = NULL;
	127	}
	128
	129	}
	130
	131	// ------------------------------------------------------------------------------------------------
	132	void Tokenize(TokenList& output_tokens, const char* input)
	133	{
	134	ai_assert(input);
	135
	136	// line and column numbers numbers are one-based
	137	unsigned int line = 1;
	138	unsigned int column = 1;
	139
	140	bool comment = false;
	141	bool in_double_quotes = false;
	142	bool pending_data_token = false;
	143
	144	const char* token_begin = NULL, *token_end = NULL;
	145	for (const char* cur = input;cur;column += (cur == '\t' ? ASSIMP_FBX_TAB_WIDTH : 1), ++cur) {
	146	const char c = *cur;
	147
	148	if (IsLineEnd(c)) {
	149	comment = false;
	150
	151	column = 0;
	152	++line;
	153	}
	154
	155	if(comment) {
	156	continue;
	157	}
	158
	159	if(in_double_quotes) {
	160	if (c == '\"') {
	161	in_double_quotes = false;
	162	token_end = cur;
	163
	164	ProcessDataToken(output_tokens,token_begin,token_end,line,column);
	165	pending_data_token = false;
	166	}
	167	continue;
	168	}
	169
	170	switch(c)
	171	{
	172	case '\"':
	173	if (token_begin) {
	174	TokenizeError("unexpected double-quote", line, column);
	175	}
	176	token_begin = cur;
	177	in_double_quotes = true;
	178	continue;
	179
	180	case ';':
	181	ProcessDataToken(output_tokens,token_begin,token_end,line,column);
	182	comment = true;
	183	continue;
	184
	185	case '{':
	186	ProcessDataToken(output_tokens,token_begin,token_end, line, column);
	187	output_tokens.push_back(new_Token(cur,cur+1,TokenType_OPEN_BRACKET,line,column));
	188	continue;
	189
	190	case '}':
	191	ProcessDataToken(output_tokens,token_begin,token_end,line,column);
	192	output_tokens.push_back(new_Token(cur,cur+1,TokenType_CLOSE_BRACKET,line,column));
	193	continue;
	194
	195	case ',':
	196	if (pending_data_token) {
	197	ProcessDataToken(output_tokens,token_begin,token_end,line,column,TokenType_DATA,true);
	198	}
	199	output_tokens.push_back(new_Token(cur,cur+1,TokenType_COMMA,line,column));
	200	continue;
	201
	202	case ':':
	203	if (pending_data_token) {
	204	ProcessDataToken(output_tokens,token_begin,token_end,line,column,TokenType_KEY,true);
	205	}
	206	else {
	207	TokenizeError("unexpected colon", line, column);
	208	}
	209	continue;
	210	}
	211
	212	if (IsSpaceOrNewLine(c)) {
	213
	214	if (token_begin) {
	215	// peek ahead and check if the next token is a colon in which
	216	// case this counts as KEY token.
	217	TokenType type = TokenType_DATA;
	218	for (const char* peek = cur; peek && IsSpaceOrNewLine(peek); ++peek) {
	219	if (*peek == ':') {
	220	type = TokenType_KEY;
	221	cur = peek;
	222	break;
	223	}
	224	}
	225
	226	ProcessDataToken(output_tokens,token_begin,token_end,line,column,type);
	227	}
	228
	229	pending_data_token = false;
	230	}
	231	else {
	232	token_end = cur;
	233	if (!token_begin) {
	234	token_begin = cur;
	235	}
	236
	237	pending_data_token = true;
	238	}
	239	}
	240	}
	241
	242	} // !FBX
	243	} // !Assimp
	244
	245	#endif

+190

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code/FBXTokenizer.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXTokenizer.h
	41	* @brief FBX lexer
	42	*/
	43	#ifndef INCLUDED_AI_FBX_TOKENIZER_H
	44	#define INCLUDED_AI_FBX_TOKENIZER_H
	45
	46	#include <boost/shared_ptr.hpp>
	47
	48	#include "FBXCompileConfig.h"
	49
	50	namespace Assimp {
	51	namespace FBX {
	52
	53	/** Rough classification for text FBX tokens used for constructing the
	54	* basic scope hierarchy. */
	55	enum TokenType
	56	{
	57	// {
	58	TokenType_OPEN_BRACKET = 0,
	59
	60	// }
	61	TokenType_CLOSE_BRACKET,
	62
	63	// '"blablubb"', '2', '*14' - very general token class,
	64	// further processing happens at a later stage.
	65	TokenType_DATA,
	66
	67	//
	68	TokenType_BINARY_DATA,
	69
	70	// ,
	71	TokenType_COMMA,
	72
	73	// blubb:
	74	TokenType_KEY
	75	};
	76
	77
	78	/** Represents a single token in a FBX file. Tokens are
	79	* classified by the #TokenType enumerated types.
	80	*
	81	* Offers iterator protocol. Tokens are immutable. */
	82	class Token
	83	{
	84
	85	private:
	86
	87	static const unsigned int BINARY_MARKER = static_cast<unsigned int>(-1);
	88
	89	public:
	90
	91	/** construct a textual token */
	92	Token(const char* sbegin, const char* send, TokenType type, unsigned int line, unsigned int column);
	93
	94	/** construct a binary token */
	95	Token(const char* sbegin, const char* send, TokenType type, unsigned int offset);
	96
	97	~Token();
	98
	99	public:
	100
	101	std::string StringContents() const {
	102	return std::string(begin(),end());
	103	}
	104
	105	public:
	106
	107	bool IsBinary() const {
	108	return column == BINARY_MARKER;
	109	}
	110
	111	const char* begin() const {
	112	return sbegin;
	113	}
	114
	115	const char* end() const {
	116	return send;
	117	}
	118
	119	TokenType Type() const {
	120	return type;
	121	}
	122
	123	unsigned int Offset() const {
	124	ai_assert(IsBinary());
	125	return offset;
	126	}
	127
	128	unsigned int Line() const {
	129	ai_assert(!IsBinary());
	130	return line;
	131	}
	132
	133	unsigned int Column() const {
	134	ai_assert(!IsBinary());
	135	return column;
	136	}
	137
	138	private:
	139
	140	#ifdef DEBUG
	141	// full string copy for the sole purpose that it nicely appears
	142	// in msvc's debugger window.
	143	const std::string contents;
	144	#endif
	145
	146
	147	const char* const sbegin;
	148	const char* const send;
	149	const TokenType type;
	150
	151	union {
	152	const unsigned int line;
	153	unsigned int offset;
	154	};
	155	const unsigned int column;
	156	};
	157
	158	// XXX should use C++11's unique_ptr - but assimp's need to keep working with 03
	159	typedef const Token* TokenPtr;
	160	typedef std::vector< TokenPtr > TokenList;
	161
	162	#define new_Token new Token
	163
	164
	165	/** Main FBX tokenizer function. Transform input buffer into a list of preprocessed tokens.
	166	*
	167	* Skips over comments and generates line and column numbers.
	168	*
	169	* @param output_tokens Receives a list of all tokens in the input data.
	170	* @param input_buffer Textual input buffer to be processed, 0-terminated.
	171	* @throw DeadlyImportError if something goes wrong */
	172	void Tokenize(TokenList& output_tokens, const char* input);
	173
	174
	175	/** Tokenizer function for binary FBX files.
	176	*
	177	* Emits a token list suitable for direct parsing.
	178	*
	179	* @param output_tokens Receives a list of all tokens in the input data.
	180	* @param input_buffer Binary input buffer to be processed.
	181	* @param length Length of input buffer, in bytes. There is no 0-terminal.
	182	* @throw DeadlyImportError if something goes wrong */
	183	void TokenizeBinary(TokenList& output_tokens, const char* input, unsigned int length);
	184
	185
	186	} // ! FBX
	187	} // ! Assimp
	188
	189	#endif // ! INCLUDED_AI_FBX_PARSER_H

+119

-0

code/FBXUtil.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXUtil.cpp
	41	* @brief Implementation of internal FBX utility functions
	42	*/
	43	#include "AssimpPCH.h"
	44
	45	#include "FBXUtil.h"
	46	#include "FBXTokenizer.h"
	47
	48	#include "TinyFormatter.h"
	49
	50	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	51
	52	namespace Assimp {
	53	namespace FBX {
	54	namespace Util {
	55
	56	// ------------------------------------------------------------------------------------------------
	57	const char* TokenTypeString(TokenType t)
	58	{
	59	switch(t) {
	60	case TokenType_OPEN_BRACKET:
	61	return "TOK_OPEN_BRACKET";
	62
	63	case TokenType_CLOSE_BRACKET:
	64	return "TOK_CLOSE_BRACKET";
	65
	66	case TokenType_DATA:
	67	return "TOK_DATA";
	68
	69	case TokenType_COMMA:
	70	return "TOK_COMMA";
	71
	72	case TokenType_KEY:
	73	return "TOK_KEY";
	74
	75	case TokenType_BINARY_DATA:
	76	return "TOK_BINARY_DATA";
	77	}
	78
	79	ai_assert(false);
	80	return "";
	81	}
	82
	83
	84	// ------------------------------------------------------------------------------------------------
	85	std::string AddOffset(const std::string& prefix, const std::string& text, unsigned int offset)
	86	{
	87	return static_cast<std::string>( (Formatter::format(),prefix," (offset 0x",std::hex,offset,") ",text) );
	88	}
	89
	90	// ------------------------------------------------------------------------------------------------
	91	std::string AddLineAndColumn(const std::string& prefix, const std::string& text, unsigned int line, unsigned int column)
	92	{
	93	return static_cast<std::string>( (Formatter::format(),prefix," (line ",line,", col ",column,") ",text) );
	94	}
	95
	96	// ------------------------------------------------------------------------------------------------
	97	std::string AddTokenText(const std::string& prefix, const std::string& text, const Token* tok)
	98	{
	99	if(tok->IsBinary()) {
	100	return static_cast<std::string>( (Formatter::format(),prefix,
	101	" (",TokenTypeString(tok->Type()),
	102	", offset 0x", std::hex, tok->Offset(),") ",
	103	text) );
	104	}
	105
	106	return static_cast<std::string>( (Formatter::format(),prefix,
	107	" (",TokenTypeString(tok->Type()),
	108	", line ",tok->Line(),
	109	", col ",tok->Column(),") ",
	110	text) );
	111	}
	112
	113	} // !Util
	114	} // !FBX
	115	} // !Assimp
	116
	117	#endif
	118

+104

-0

code/FBXUtil.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file FBXUtil.h
	41	* @brief FBX utility functions for internal use
	42	*/
	43	#ifndef INCLUDED_AI_FBX_UTIL_H
	44	#define INCLUDED_AI_FBX_UTIL_H
	45
	46	#include <string>
	47	#include "FBXCompileConfig.h"
	48	#include "FBXTokenizer.h"
	49
	50	namespace Assimp {
	51	namespace FBX {
	52
	53
	54	namespace Util {
	55
	56
	57	/** helper for std::for_each to delete all heap-allocated items in a container */
	58	template<typename T>
	59	struct delete_fun
	60	{
	61	void operator()(const volatile T* del) {
	62	delete del;
	63	}
	64	};
	65
	66	/** Get a string representation for a #TokenType. */
	67	const char* TokenTypeString(TokenType t);
	68
	69
	70
	71	/** Format log/error messages using a given offset in the source binary file
	72	*
	73	* @param prefix Message prefix to be preprended to the location info.
	74	* @param text Message text
	75	* @param line Line index, 1-based
	76	* @param column Colum index, 1-based
	77	* @return A string of the following format: {prefix} (offset 0x{offset}) {text}*/
	78	std::string AddOffset(const std::string& prefix, const std::string& text, unsigned int offset);
	79
	80
	81	/** Format log/error messages using a given line location in the source file.
	82	*
	83	* @param prefix Message prefix to be preprended to the location info.
	84	* @param text Message text
	85	* @param line Line index, 1-based
	86	* @param column Colum index, 1-based
	87	* @return A string of the following format: {prefix} (line {line}, col {column}) {text}*/
	88	std::string AddLineAndColumn(const std::string& prefix, const std::string& text, unsigned int line, unsigned int column);
	89
	90
	91	/** Format log/error messages using a given cursor token.
	92	*
	93	* @param prefix Message prefix to be preprended to the location info.
	94	* @param text Message text
	95	* @param tok Token where parsing/processing stopped
	96	* @return A string of the following format: {prefix} ({token-type}, line {line}, col {column}) {text}*/
	97	std::string AddTokenText(const std::string& prefix, const std::string& text, const Token* tok);
	98
	99	}
	100	}
	101	}
	102
	103	#endif // ! INCLUDED_AI_FBX_UTIL_H

-1

code/FindDegenerates.h less more

52	52	// ---------------------------------------------------------------------------
53	53	/** FindDegeneratesProcess: Searches a mesh for degenerated triangles.
54	54	*/
55		class FindDegeneratesProcess : public BaseProcess
	55	class ASSIMP_API FindDegeneratesProcess : public BaseProcess
56	56	{
57	57	public:
58	58

-3

code/FindInvalidDataProcess.h less more

50	50	namespace Assimp {
51	51
52	52	// ---------------------------------------------------------------------------
53		/** The FindInvalidData postprocessing step. It searches the mesh data
	53	/** The FindInvalidData post-processing step. It searches the mesh data
54	54	* for parts that are obviously invalid and removes them.
55	55	*
56	56	* Originally this was a workaround for some models written by Blender
57	57	* which have zero normal vectors. */
58		class FindInvalidDataProcess
59		: public BaseProcess
	58	class ASSIMP_API FindInvalidDataProcess : public BaseProcess
60	59	{
61	60	public:
62	61

-6

code/GenVertexNormalsProcess.cpp less more

141	141	const aiVector3D* pV1 = &pMesh->mVertices[face.mIndices[0]];
142	142	const aiVector3D* pV2 = &pMesh->mVertices[face.mIndices[1]];
143	143	const aiVector3D* pV3 = &pMesh->mVertices[face.mIndices[face.mNumIndices-1]];
144		const aiVector3D vNor = ((pV2 - pV1) ^ (pV3 - pV1)).Normalize();
	144	const aiVector3D vNor = ((pV2 - pV1) ^ (pV3 - pV1));
145	145
146	146	for (unsigned int i = 0;i < face.mNumIndices;++i) {
147	147	pMesh->mNormals[face.mIndices[i]] = vNor;

208	208	// Get all vertices that share this one ...
209	209	vertexFinder->FindPositions( pMesh->mVertices[i] , posEpsilon, verticesFound);
210	210
	211	aiVector3D vr = pMesh->mNormals[i];
	212	float vrlen = vr.Length();
	213
211	214	aiVector3D pcNor;
212	215	for (unsigned int a = 0; a < verticesFound.size(); ++a) {
213		const aiVector3D& v = pMesh->mNormals[verticesFound[a]];
	216	aiVector3D v = pMesh->mNormals[verticesFound[a]];
214	217
215	218	// check whether the angle between the two normals is not too large
216	219	// HACK: if v.x is qnan the dot product will become qnan, too
217	220	// therefore the comparison against fLimit should be false
218	221	// in every case.
219		if (v * pMesh->mNormals[i] < fLimit)
220		continue;
221
222		pcNor += v;
	222	if (v * vr >= fLimit * vrlen * v.Length())
	223	pcNor += v;
223	224	}
224	225	pcNew[i] = pcNor.Normalize();
225	226	}

+729

-0

code/IFCBoolean.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2010, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file IFCBoolean.cpp
	41	* @brief Implements a subset of Ifc boolean operations
	42	*/
	43
	44	#include "AssimpPCH.h"
	45
	46	#ifndef ASSIMP_BUILD_NO_IFC_IMPORTER
	47	#include "IFCUtil.h"
	48	#include "PolyTools.h"
	49	#include "ProcessHelper.h"
	50
	51	#include <iterator>
	52
	53	namespace Assimp {
	54	namespace IFC {
	55
	56	// ------------------------------------------------------------------------------------------------
	57	enum Intersect {
	58	Intersect_No,
	59	Intersect_LiesOnPlane,
	60	Intersect_Yes
	61	};
	62
	63	// ------------------------------------------------------------------------------------------------
	64	Intersect IntersectSegmentPlane(const IfcVector3& p,const IfcVector3& n, const IfcVector3& e0,
	65	const IfcVector3& e1,
	66	IfcVector3& out)
	67	{
	68	const IfcVector3 pdelta = e0 - p, seg = e1-e0;
	69	const IfcFloat dotOne = nseg, dotTwo = -(npdelta);
	70
	71	if (fabs(dotOne) < 1e-6) {
	72	return fabs(dotTwo) < 1e-6f ? Intersect_LiesOnPlane : Intersect_No;
	73	}
	74
	75	const IfcFloat t = dotTwo/dotOne;
	76	// t must be in [0..1] if the intersection point is within the given segment
	77	if (t > 1.f \|\| t < 0.f) {
	78	return Intersect_No;
	79	}
	80	out = e0+t*seg;
	81	return Intersect_Yes;
	82	}
	83
	84	// ------------------------------------------------------------------------------------------------
	85	void ProcessBooleanHalfSpaceDifference(const IfcHalfSpaceSolid* hs, TempMesh& result,
	86	const TempMesh& first_operand,
	87	ConversionData& conv)
	88	{
	89	ai_assert(hs != NULL);
	90
	91	const IfcPlane* const plane = hs->BaseSurface->ToPtr<IfcPlane>();
	92	if(!plane) {
	93	IFCImporter::LogError("expected IfcPlane as base surface for the IfcHalfSpaceSolid");
	94	return;
	95	}
	96
	97	// extract plane base position vector and normal vector
	98	IfcVector3 p,n(0.f,0.f,1.f);
	99	if (plane->Position->Axis) {
	100	ConvertDirection(n,plane->Position->Axis.Get());
	101	}
	102	ConvertCartesianPoint(p,plane->Position->Location);
	103
	104	if(!IsTrue(hs->AgreementFlag)) {
	105	n *= -1.f;
	106	}
	107
	108	// clip the current contents of `meshout` against the plane we obtained from the second operand
	109	const std::vector<IfcVector3>& in = first_operand.verts;
	110	std::vector<IfcVector3>& outvert = result.verts;
	111
	112	std::vector<unsigned int>::const_iterator begin = first_operand.vertcnt.begin(),
	113	end = first_operand.vertcnt.end(), iit;
	114
	115	outvert.reserve(in.size());
	116	result.vertcnt.reserve(first_operand.vertcnt.size());
	117
	118	unsigned int vidx = 0;
	119	for(iit = begin; iit != end; vidx += *iit++) {
	120
	121	unsigned int newcount = 0;
	122	for(unsigned int i = 0; i < *iit; ++i) {
	123	const IfcVector3& e0 = in[vidx+i], e1 = in[vidx+(i+1)%*iit];
	124
	125	// does the next segment intersect the plane?
	126	IfcVector3 isectpos;
	127	const Intersect isect = IntersectSegmentPlane(p,n,e0,e1,isectpos);
	128	if (isect == Intersect_No \|\| isect == Intersect_LiesOnPlane) {
	129	if ( (e0-p).Normalize()*n > 0 ) {
	130	outvert.push_back(e0);
	131	++newcount;
	132	}
	133	}
	134	else if (isect == Intersect_Yes) {
	135	if ( (e0-p).Normalize()*n > 0 ) {
	136	// e0 is on the right side, so keep it
	137	outvert.push_back(e0);
	138	outvert.push_back(isectpos);
	139	newcount += 2;
	140	}
	141	else {
	142	// e0 is on the wrong side, so drop it and keep e1 instead
	143	outvert.push_back(isectpos);
	144	++newcount;
	145	}
	146	}
	147	}
	148
	149	if (!newcount) {
	150	continue;
	151	}
	152
	153	IfcVector3 vmin,vmax;
	154	ArrayBounds(&*(outvert.end()-newcount),newcount,vmin,vmax);
	155
	156	// filter our IfcFloat points - those may happen if a point lies
	157	// directly on the intersection line. However, due to IfcFloat
	158	// precision a bitwise comparison is not feasible to detect
	159	// this case.
	160	const IfcFloat epsilon = (vmax-vmin).SquareLength() / 1e6f;
	161	FuzzyVectorCompare fz(epsilon);
	162
	163	std::vector<IfcVector3>::iterator e = std::unique( outvert.end()-newcount, outvert.end(), fz );
	164
	165	if (e != outvert.end()) {
	166	newcount -= static_cast<unsigned int>(std::distance(e,outvert.end()));
	167	outvert.erase(e,outvert.end());
	168	}
	169	if (fz(*( outvert.end()-newcount),outvert.back())) {
	170	outvert.pop_back();
	171	--newcount;
	172	}
	173	if(newcount > 2) {
	174	result.vertcnt.push_back(newcount);
	175	}
	176	else while(newcount-->0) {
	177	result.verts.pop_back();
	178	}
	179
	180	}
	181	IFCImporter::LogDebug("generating CSG geometry by plane clipping (IfcBooleanClippingResult)");
	182	}
	183
	184	// ------------------------------------------------------------------------------------------------
	185	// Check if e0-e1 intersects a sub-segment of the given boundary line.
	186	// note: this functions works on 3D vectors, but performs its intersection checks solely in xy.
	187	bool IntersectsBoundaryProfile( const IfcVector3& e0, const IfcVector3& e1, const std::vector<IfcVector3>& boundary,
	188	std::vector<size_t>& intersected_boundary_segments,
	189	std::vector<IfcVector3>& intersected_boundary_points,
	190	bool half_open = false,
	191	bool* e0_hits_border = NULL)
	192	{
	193	ai_assert(intersected_boundary_segments.empty());
	194	ai_assert(intersected_boundary_points.empty());
	195
	196	if(e0_hits_border) {
	197	*e0_hits_border = false;
	198	}
	199
	200	const IfcVector3& e = e1 - e0;
	201
	202	for (size_t i = 0, bcount = boundary.size(); i < bcount; ++i) {
	203	// boundary segment i: b0-b1
	204	const IfcVector3& b0 = boundary[i];
	205	const IfcVector3& b1 = boundary[(i+1) % bcount];
	206
	207	const IfcVector3& b = b1 - b0;
	208
	209	// segment-segment intersection
	210	// solve b0 + bs = e0 + et for (s,t)
	211	const IfcFloat det = (-b.x * e.y + e.x * b.y);
	212	if(fabs(det) < 1e-6) {
	213	// no solutions (parallel lines)
	214	continue;
	215	}
	216
	217	const IfcFloat x = b0.x - e0.x;
	218	const IfcFloat y = b0.y - e0.y;
	219
	220	const IfcFloat s = (xe.y - e.xy)/det;
	221	const IfcFloat t = (xb.y - b.xy)/det;
	222
	223	#ifdef ASSIMP_BUILD_DEBUG
	224	const IfcVector3 check = b0 + bs - (e0 + et);
	225	ai_assert((IfcVector2(check.x,check.y)).SquareLength() < 1e-5);
	226	#endif
	227
	228	// for a valid intersection, s-t should be in range [0,1].
	229	// note that for t (i.e. the segment point) we only use a
	230	// half-sided epsilon because the next segment should catch
	231	// this case.
	232	const IfcFloat epsilon = 1e-6;
	233	if (t >= -epsilon && (t <= 1.0+epsilon \|\| half_open) && s >= -epsilon && s <= 1.0) {
	234
	235	if (e0_hits_border && !*e0_hits_border) {
	236	*e0_hits_border = fabs(t) < 1e-5f;
	237	}
	238
	239	const IfcVector3& p = e0 + e*t;
	240
	241	// only insert the point into the list if it is sufficiently
	242	// far away from the previous intersection point. This way,
	243	// we avoid duplicate detection if the intersection is
	244	// directly on the vertex between two segments.
	245	if (!intersected_boundary_points.empty() && intersected_boundary_segments.back()==i-1 ) {
	246	const IfcVector3 diff = intersected_boundary_points.back() - p;
	247	if(IfcVector2(diff.x, diff.y).SquareLength() < 1e-7) {
	248	continue;
	249	}
	250	}
	251	intersected_boundary_segments.push_back(i);
	252	intersected_boundary_points.push_back(p);
	253	}
	254	}
	255
	256	return !intersected_boundary_segments.empty();
	257	}
	258
	259
	260	// ------------------------------------------------------------------------------------------------
	261	// note: this functions works on 3D vectors, but performs its intersection checks solely in xy.
	262	bool PointInPoly(const IfcVector3& p, const std::vector<IfcVector3>& boundary)
	263	{
	264	// even-odd algorithm: take a random vector that extends from p to infinite
	265	// and counts how many times it intersects edges of the boundary.
	266	// because checking for segment intersections is prone to numeric inaccuracies
	267	// or double detections (i.e. when hitting multiple adjacent segments at their
	268	// shared vertices) we do it thrice with different rays and vote on it.
	269
	270	// the even-odd algorithm doesn't work for points which lie directly on
	271	// the border of the polygon. If any of our attempts produces this result,
	272	// we return false immediately.
	273
	274	std::vector<size_t> intersected_boundary_segments;
	275	std::vector<IfcVector3> intersected_boundary_points;
	276	size_t votes = 0;
	277
	278	bool is_border;
	279	IntersectsBoundaryProfile(p, p + IfcVector3(1.0,0,0), boundary,
	280	intersected_boundary_segments,
	281	intersected_boundary_points, true, &is_border);
	282
	283	if(is_border) {
	284	return false;
	285	}
	286
	287	votes += intersected_boundary_segments.size() % 2;
	288
	289	intersected_boundary_segments.clear();
	290	intersected_boundary_points.clear();
	291
	292	IntersectsBoundaryProfile(p, p + IfcVector3(0,1.0,0), boundary,
	293	intersected_boundary_segments,
	294	intersected_boundary_points, true, &is_border);
	295
	296	if(is_border) {
	297	return false;
	298	}
	299
	300	votes += intersected_boundary_segments.size() % 2;
	301
	302	intersected_boundary_segments.clear();
	303	intersected_boundary_points.clear();
	304
	305	IntersectsBoundaryProfile(p, p + IfcVector3(0.6,-0.6,0.0), boundary,
	306	intersected_boundary_segments,
	307	intersected_boundary_points, true, &is_border);
	308
	309	if(is_border) {
	310	return false;
	311	}
	312
	313	votes += intersected_boundary_segments.size() % 2;
	314	//ai_assert(votes == 3 \|\| votes == 0);
	315	return votes > 1;
	316	}
	317
	318
	319	// ------------------------------------------------------------------------------------------------
	320	void ProcessPolygonalBoundedBooleanHalfSpaceDifference(const IfcPolygonalBoundedHalfSpace* hs, TempMesh& result,
	321	const TempMesh& first_operand,
	322	ConversionData& conv)
	323	{
	324	ai_assert(hs != NULL);
	325
	326	const IfcPlane* const plane = hs->BaseSurface->ToPtr<IfcPlane>();
	327	if(!plane) {
	328	IFCImporter::LogError("expected IfcPlane as base surface for the IfcHalfSpaceSolid");
	329	return;
	330	}
	331
	332	// extract plane base position vector and normal vector
	333	IfcVector3 p,n(0.f,0.f,1.f);
	334	if (plane->Position->Axis) {
	335	ConvertDirection(n,plane->Position->Axis.Get());
	336	}
	337	ConvertCartesianPoint(p,plane->Position->Location);
	338
	339	if(!IsTrue(hs->AgreementFlag)) {
	340	n *= -1.f;
	341	}
	342
	343	n.Normalize();
	344
	345	// obtain the polygonal bounding volume
	346	boost::shared_ptr<TempMesh> profile = boost::shared_ptr<TempMesh>(new TempMesh());
	347	if(!ProcessCurve(hs->PolygonalBoundary, *profile.get(), conv)) {
	348	IFCImporter::LogError("expected valid polyline for boundary of boolean halfspace");
	349	return;
	350	}
	351
	352	IfcMatrix4 proj_inv;
	353	ConvertAxisPlacement(proj_inv,hs->Position);
	354
	355	// and map everything into a plane coordinate space so all intersection
	356	// tests can be done in 2D space.
	357	IfcMatrix4 proj = proj_inv;
	358	proj.Inverse();
	359
	360	// clip the current contents of `meshout` against the plane we obtained from the second operand
	361	const std::vector<IfcVector3>& in = first_operand.verts;
	362	std::vector<IfcVector3>& outvert = result.verts;
	363
	364	std::vector<unsigned int>::const_iterator begin = first_operand.vertcnt.begin(),
	365	end = first_operand.vertcnt.end(), iit;
	366
	367	outvert.reserve(in.size());
	368	result.vertcnt.reserve(first_operand.vertcnt.size());
	369
	370	std::vector<size_t> intersected_boundary_segments;
	371	std::vector<IfcVector3> intersected_boundary_points;
	372
	373	// TODO: the following algorithm doesn't handle all cases.
	374	unsigned int vidx = 0;
	375	for(iit = begin; iit != end; vidx += *iit++) {
	376	if (!*iit) {
	377	continue;
	378	}
	379
	380	unsigned int newcount = 0;
	381	bool was_outside_boundary = !PointInPoly(proj * in[vidx], profile->verts);
	382
	383	// used any more?
	384	//size_t last_intersected_boundary_segment;
	385	IfcVector3 last_intersected_boundary_point;
	386
	387	bool extra_point_flag = false;
	388	IfcVector3 extra_point;
	389
	390	IfcVector3 enter_volume;
	391	bool entered_volume_flag = false;
	392
	393	for(unsigned int i = 0; i < *iit; ++i) {
	394	// current segment: [i,i+1 mod size] or [*extra_point,i] if extra_point_flag is set
	395	const IfcVector3& e0 = extra_point_flag ? extra_point : in[vidx+i];
	396	const IfcVector3& e1 = extra_point_flag ? in[vidx+i] : in[vidx+(i+1)%*iit];
	397
	398	// does the current segment intersect the polygonal boundary?
	399	const IfcVector3& e0_plane = proj * e0;
	400	const IfcVector3& e1_plane = proj * e1;
	401
	402	intersected_boundary_segments.clear();
	403	intersected_boundary_points.clear();
	404
	405	const bool is_outside_boundary = !PointInPoly(e1_plane, profile->verts);
	406	const bool is_boundary_intersection = is_outside_boundary != was_outside_boundary;
	407
	408	IntersectsBoundaryProfile(e0_plane, e1_plane, profile->verts,
	409	intersected_boundary_segments,
	410	intersected_boundary_points);
	411
	412	ai_assert(!is_boundary_intersection \|\| !intersected_boundary_segments.empty());
	413
	414	// does the current segment intersect the plane?
	415	// (no extra check if this is an extra point)
	416	IfcVector3 isectpos;
	417	const Intersect isect = extra_point_flag ? Intersect_No : IntersectSegmentPlane(p,n,e0,e1,isectpos);
	418
	419	#ifdef ASSIMP_BUILD_DEBUG
	420	if (isect == Intersect_Yes) {
	421	const IfcFloat f = fabs((isectpos - p)*n);
	422	ai_assert(f < 1e-5);
	423	}
	424	#endif
	425
	426	const bool is_white_side = (e0-p)*n >= -1e-6;
	427
	428	// e0 on good side of plane? (i.e. we should keep all geometry on this side)
	429	if (is_white_side) {
	430	// but is there an intersection in e0-e1 and is e1 in the clipping
	431	// boundary? In this case, generate a line that only goes to the
	432	// intersection point.
	433	if (isect == Intersect_Yes && !is_outside_boundary) {
	434	outvert.push_back(e0);
	435	++newcount;
	436
	437	outvert.push_back(isectpos);
	438	++newcount;
	439
	440	/*
	441	// this is, however, only a line that goes to the plane, but not
	442	// necessarily to the point where the bounding volume on the
	443	// black side of the plane is hit. So basically, we need another
	444	// check for [isectpos-e1], which should yield an intersection
	445	// point.
	446	extra_point_flag = true;
	447	extra_point = isectpos;
	448
	449	was_outside_boundary = true;
	450	continue; */
	451
	452	// [isectpos, enter_volume] potentially needs extra points.
	453	// For this, we determine the intersection point with the
	454	// bounding volume and project it onto the plane.
	455	/*
	456	const IfcVector3& enter_volume_proj = proj * enter_volume;
	457	const IfcVector3& enter_isectpos = proj * isectpos;
	458
	459	intersected_boundary_segments.clear();
	460	intersected_boundary_points.clear();
	461
	462	IntersectsBoundaryProfile(enter_volume_proj, enter_isectpos, profile->verts,
	463	intersected_boundary_segments,
	464	intersected_boundary_points);
	465
	466	if(!intersected_boundary_segments.empty()) {
	467
	468	vec = vec + ((p - vec) * n) * n;
	469	}
	470	*/
	471
	472	//entered_volume_flag = true;
	473	}
	474	else {
	475	outvert.push_back(e0);
	476	++newcount;
	477	}
	478	}
	479	// e0 on bad side of plane, e1 on good (i.e. we should remove geometry on this side,
	480	// but only if it is within the bounding volume).
	481	else if (isect == Intersect_Yes) {
	482	// is e0 within the clipping volume? Insert the intersection point
	483	// of [e0,e1] and the plane instead of e0.
	484	if(was_outside_boundary) {
	485	outvert.push_back(e0);
	486	}
	487	else {
	488	if(entered_volume_flag) {
	489	const IfcVector3& fix_point = enter_volume + ((p - enter_volume) * n) * n;
	490	outvert.push_back(fix_point);
	491	++newcount;
	492	}
	493
	494	outvert.push_back(isectpos);
	495	}
	496	entered_volume_flag = false;
	497	++newcount;
	498	}
	499	else { // no intersection with plane or parallel; e0,e1 are on the bad side
	500
	501	// did we just pass the boundary line to the poly bounding?
	502	if (is_boundary_intersection) {
	503
	504	// and are now outside the clipping boundary?
	505	if (is_outside_boundary) {
	506	// in this case, get the point where the clipping boundary
	507	// was entered first. Then, get the point where the clipping
	508	// boundary volume was left! These two points with the plane
	509	// normal form another plane that intersects the clipping
	510	// volume. There are two ways to get from the first to the
	511	// second point along the intersection curve, try to pick the
	512	// one that lies within the current polygon.
	513
	514	// TODO this approach doesn't handle all cases
	515
	516	// ...
	517
	518	IfcFloat d = 1e20;
	519	IfcVector3 vclosest;
	520	BOOST_FOREACH(const IfcVector3& v, intersected_boundary_points) {
	521	const IfcFloat dn = (v-e1_plane).SquareLength();
	522	if (dn < d) {
	523	d = dn;
	524	vclosest = v;
	525	}
	526	}
	527
	528	vclosest = proj_inv * vclosest;
	529	if(entered_volume_flag) {
	530	const IfcVector3& fix_point = vclosest + ((p - vclosest) * n) * n;
	531	outvert.push_back(fix_point);
	532	++newcount;
	533
	534	entered_volume_flag = false;
	535	}
	536
	537	outvert.push_back(vclosest);
	538	++newcount;
	539
	540	//outvert.push_back(e1);
	541	//++newcount;
	542	}
	543	else {
	544	entered_volume_flag = true;
	545
	546	// we just entered the clipping boundary. Record the point
	547	// and the segment where we entered and also generate this point.
	548	//last_intersected_boundary_segment = intersected_boundary_segments.front();
	549	//last_intersected_boundary_point = intersected_boundary_points.front();
	550
	551	outvert.push_back(e0);
	552	++newcount;
	553
	554	IfcFloat d = 1e20;
	555	IfcVector3 vclosest;
	556	BOOST_FOREACH(const IfcVector3& v, intersected_boundary_points) {
	557	const IfcFloat dn = (v-e0_plane).SquareLength();
	558	if (dn < d) {
	559	d = dn;
	560	vclosest = v;
	561	}
	562	}
	563
	564	enter_volume = proj_inv * vclosest;
	565	outvert.push_back(enter_volume);
	566	++newcount;
	567	}
	568	}
	569	// if not, we just keep the vertex
	570	else if (is_outside_boundary) {
	571	outvert.push_back(e0);
	572	++newcount;
	573
	574	entered_volume_flag = false;
	575	}
	576	}
	577
	578	was_outside_boundary = is_outside_boundary;
	579	extra_point_flag = false;
	580	}
	581
	582	if (!newcount) {
	583	continue;
	584	}
	585
	586	IfcVector3 vmin,vmax;
	587	ArrayBounds(&*(outvert.end()-newcount),newcount,vmin,vmax);
	588
	589	// filter our IfcFloat points - those may happen if a point lies
	590	// directly on the intersection line. However, due to IfcFloat
	591	// precision a bitwise comparison is not feasible to detect
	592	// this case.
	593	const IfcFloat epsilon = (vmax-vmin).SquareLength() / 1e6f;
	594	FuzzyVectorCompare fz(epsilon);
	595
	596	std::vector<IfcVector3>::iterator e = std::unique( outvert.end()-newcount, outvert.end(), fz );
	597
	598	if (e != outvert.end()) {
	599	newcount -= static_cast<unsigned int>(std::distance(e,outvert.end()));
	600	outvert.erase(e,outvert.end());
	601	}
	602	if (fz(*( outvert.end()-newcount),outvert.back())) {
	603	outvert.pop_back();
	604	--newcount;
	605	}
	606	if(newcount > 2) {
	607	result.vertcnt.push_back(newcount);
	608	}
	609	else while(newcount-->0) {
	610	result.verts.pop_back();
	611	}
	612
	613	}
	614	IFCImporter::LogDebug("generating CSG geometry by plane clipping with polygonal bounding (IfcBooleanClippingResult)");
	615	}
	616
	617	// ------------------------------------------------------------------------------------------------
	618	void ProcessBooleanExtrudedAreaSolidDifference(const IfcExtrudedAreaSolid* as, TempMesh& result,
	619	const TempMesh& first_operand,
	620	ConversionData& conv)
	621	{
	622	ai_assert(as != NULL);
	623
	624	// This case is handled by reduction to an instance of the quadrify() algorithm.
	625	// Obviously, this won't work for arbitrarily complex cases. In fact, the first
	626	// operand should be near-planar. Luckily, this is usually the case in Ifc
	627	// buildings.
	628
	629	boost::shared_ptr<TempMesh> meshtmp = boost::shared_ptr<TempMesh>(new TempMesh());
	630	ProcessExtrudedAreaSolid(as,meshtmp,conv,false);
	631
	632	std::vector<TempOpening> openings(1, TempOpening(as,IfcVector3(0,0,0),meshtmp,boost::shared_ptr<TempMesh>()));
	633
	634	result = first_operand;
	635
	636	TempMesh temp;
	637
	638	std::vector<IfcVector3>::const_iterator vit = first_operand.verts.begin();
	639	BOOST_FOREACH(unsigned int pcount, first_operand.vertcnt) {
	640	temp.Clear();
	641
	642	temp.verts.insert(temp.verts.end(), vit, vit + pcount);
	643	temp.vertcnt.push_back(pcount);
	644
	645	// The algorithms used to generate mesh geometry sometimes
	646	// spit out lines or other degenerates which must be
	647	// filtered to avoid running into assertions later on.
	648
	649	// ComputePolygonNormal returns the Newell normal, so the
	650	// length of the normal is the area of the polygon.
	651	const IfcVector3& normal = temp.ComputeLastPolygonNormal(false);
	652	if (normal.SquareLength() < static_cast<IfcFloat>(1e-5)) {
	653	IFCImporter::LogWarn("skipping degenerate polygon (ProcessBooleanExtrudedAreaSolidDifference)");
	654	continue;
	655	}
	656
	657	GenerateOpenings(openings, std::vector<IfcVector3>(1,IfcVector3(1,0,0)), temp, false, true);
	658	result.Append(temp);
	659
	660	vit += pcount;
	661	}
	662
	663	IFCImporter::LogDebug("generating CSG geometry by geometric difference to a solid (IfcExtrudedAreaSolid)");
	664	}
	665
	666	// ------------------------------------------------------------------------------------------------
	667	void ProcessBoolean(const IfcBooleanResult& boolean, TempMesh& result, ConversionData& conv)
	668	{
	669	// supported CSG operations:
	670	// DIFFERENCE
	671	if(const IfcBooleanResult* const clip = boolean.ToPtr<IfcBooleanResult>()) {
	672	if(clip->Operator != "DIFFERENCE") {
	673	IFCImporter::LogWarn("encountered unsupported boolean operator: " + (std::string)clip->Operator);
	674	return;
	675	}
	676
	677	// supported cases (1st operand):
	678	// IfcBooleanResult -- call ProcessBoolean recursively
	679	// IfcSweptAreaSolid -- obtain polygonal geometry first
	680
	681	// supported cases (2nd operand):
	682	// IfcHalfSpaceSolid -- easy, clip against plane
	683	// IfcExtrudedAreaSolid -- reduce to an instance of the quadrify() algorithm
	684
	685
	686	const IfcHalfSpaceSolid* const hs = clip->SecondOperand->ResolveSelectPtr<IfcHalfSpaceSolid>(conv.db);
	687	const IfcExtrudedAreaSolid* const as = clip->SecondOperand->ResolveSelectPtr<IfcExtrudedAreaSolid>(conv.db);
	688	if(!hs && !as) {
	689	IFCImporter::LogError("expected IfcHalfSpaceSolid or IfcExtrudedAreaSolid as second clipping operand");
	690	return;
	691	}
	692
	693	TempMesh first_operand;
	694	if(const IfcBooleanResult* const op0 = clip->FirstOperand->ResolveSelectPtr<IfcBooleanResult>(conv.db)) {
	695	ProcessBoolean(*op0,first_operand,conv);
	696	}
	697	else if (const IfcSweptAreaSolid* const swept = clip->FirstOperand->ResolveSelectPtr<IfcSweptAreaSolid>(conv.db)) {
	698	ProcessSweptAreaSolid(*swept,first_operand,conv);
	699	}
	700	else {
	701	IFCImporter::LogError("expected IfcSweptAreaSolid or IfcBooleanResult as first clipping operand");
	702	return;
	703	}
	704
	705	if(hs) {
	706
	707	const IfcPolygonalBoundedHalfSpace* const hs_bounded = clip->SecondOperand->ResolveSelectPtr<IfcPolygonalBoundedHalfSpace>(conv.db);
	708	if (hs_bounded) {
	709	ProcessPolygonalBoundedBooleanHalfSpaceDifference(hs_bounded, result, first_operand, conv);
	710	}
	711	else {
	712	ProcessBooleanHalfSpaceDifference(hs, result, first_operand, conv);
	713	}
	714	}
	715	else {
	716	ProcessBooleanExtrudedAreaSolidDifference(as, result, first_operand, conv);
	717	}
	718	}
	719	else {
	720	IFCImporter::LogWarn("skipping unknown IfcBooleanResult entity, type is " + boolean.GetClassName());
	721	}
	722	}
	723
	724	} // ! IFC
	725	} // ! Assimp
	726
	727	#endif
	728

+24

-12

code/IFCCurve.cpp less more

84	84	size_t EstimateSampleCount(IfcFloat a, IfcFloat b) const {
85	85	ai_assert(InRange(a) && InRange(b));
86	86
87		a = fmod(a,static_cast<IfcFloat>( 360. ));
88		b = fmod(b,static_cast<IfcFloat>( 360. ));
89		return static_cast<size_t>( abs(ceil(( b-a)) / conv.settings.conicSamplingAngle) );
	87	a *= conv.angle_scale;
	88	b *= conv.angle_scale;
	89
	90	a = fmod(a,static_cast<IfcFloat>( AI_MATH_TWO_PI ));
	91	b = fmod(b,static_cast<IfcFloat>( AI_MATH_TWO_PI ));
	92	const IfcFloat setting = static_cast<IfcFloat>( AI_MATH_PI * conv.settings.conicSamplingAngle / 180.0 );
	93	return static_cast<size_t>( ceil(abs( b-a)) / setting);
90	94	}
91	95
92	96	// --------------------------------------------------
93	97	ParamRange GetParametricRange() const {
94		return std::make_pair(static_cast<IfcFloat>( 0. ), static_cast<IfcFloat>( 360. ));
	98	return std::make_pair(static_cast<IfcFloat>( 0. ), static_cast<IfcFloat>( AI_MATH_TWO_PI / conv.angle_scale ));
95	99	}
96	100
97	101	protected:

271	275	IfcFloat acc = 0;
272	276	BOOST_FOREACH(const CurveEntry& entry, curves) {
273	277	const ParamRange& range = entry.first->GetParametricRange();
274		const IfcFloat delta = range.second-range.first;
	278	const IfcFloat delta = abs(range.second-range.first);
275	279	if (u < acc+delta) {
276	280	return entry.first->Eval( entry.second ? (u-acc) + range.first : range.second-(u-acc));
277	281	}

290	294	IfcFloat acc = 0;
291	295	BOOST_FOREACH(const CurveEntry& entry, curves) {
292	296	const ParamRange& range = entry.first->GetParametricRange();
293		const IfcFloat delta = range.second-range.first;
	297	const IfcFloat delta = abs(range.second-range.first);
294	298	if (a <= acc+delta && b >= acc) {
295	299	const IfcFloat at = std::max(static_cast<IfcFloat>( 0. ),a-acc), bt = std::min(delta,b-acc);
296	300	cnt += entry.first->EstimateSampleCount( entry.second ? at + range.first : range.second - bt, entry.second ? bt + range.first : range.second - at );

424	428	}
425	429
426	430	// --------------------------------------------------
	431	void SampleDiscrete(TempMesh& out,IfcFloat a,IfcFloat b) const {
	432	ai_assert(InRange(a) && InRange(b));
	433	return base->SampleDiscrete(out,TrimParam(a),TrimParam(b));
	434	}
	435
	436	// --------------------------------------------------
427	437	ParamRange GetParametricRange() const {
428	438	return std::make_pair(static_cast<IfcFloat>( 0. ),maxval);
429	439	}

539	549	return NULL;
540	550	}
541	551
542		#ifdef _DEBUG
	552	#ifdef ASSIMP_BUILD_DEBUG
543	553	// ------------------------------------------------------------------------------------------------
544	554	bool Curve :: InRange(IfcFloat u) const
545	555	{
546	556	const ParamRange range = GetParametricRange();
547	557	if (IsClosed()) {
548		ai_assert(range.first != std::numeric_limits<IfcFloat>::infinity() && range.second != std::numeric_limits<IfcFloat>::infinity());
549		u = range.first + fmod(u-range.first,range.second-range.first);
550		}
551		return u >= range.first && u <= range.second;
	558	return true;
	559	//ai_assert(range.first != std::numeric_limits<IfcFloat>::infinity() && range.second != std::numeric_limits<IfcFloat>::infinity());
	560	//u = range.first + fmod(u-range.first,range.second-range.first);
	561	}
	562	const IfcFloat epsilon = 1e-5;
	563	return u - range.first > -epsilon && range.second - u > -epsilon;
552	564	}
553	565	#endif
554	566

556	568	IfcFloat Curve :: GetParametricRangeDelta() const
557	569	{
558	570	const ParamRange& range = GetParametricRange();
559		return range.second - range.first;
	571	return abs(range.second - range.first);
560	572	}
561	573
562	574	// ------------------------------------------------------------------------------------------------

+380

-1347

code/IFCGeometry.cpp less more

56	56	namespace Assimp {
57	57	namespace IFC {
58	58
59		using ClipperLib::ulong64;
60		// XXX use full -+ range ...
61		const ClipperLib::long64 max_ulong64 = 1518500249; // clipper.cpp / hiRange var
62
63		//#define to_int64(p) (static_cast<ulong64>( std::max( 0., std::min( static_cast<IfcFloat>((p)), 1.) ) * max_ulong64 ))
64		#define to_int64(p) (static_cast<ulong64>(static_cast<IfcFloat>((p) ) * max_ulong64 ))
65		#define from_int64(p) (static_cast<IfcFloat>((p)) / max_ulong64)
66
67	59	// ------------------------------------------------------------------------------------------------
68	60	bool ProcessPolyloop(const IfcPolyLoop& loop, TempMesh& meshout, ConversionData& /conv/)
69	61	{

91	83	}
92	84
93	85	// ------------------------------------------------------------------------------------------------
94		void ComputePolygonNormals(const TempMesh& meshout, std::vector<IfcVector3>& normals, bool normalize = true, size_t ofs = 0)
95		{
96		size_t max_vcount = 0;
97		std::vector<unsigned int>::const_iterator begin=meshout.vertcnt.begin()+ofs, end=meshout.vertcnt.end(), iit;
98		for(iit = begin; iit != end; ++iit) {
99		max_vcount = std::max(max_vcount,static_cast<size_t>(*iit));
100		}
101
102		std::vector<IfcFloat> temp((max_vcount+2)*4);
103		normals.reserve( normals.size() + meshout.vertcnt.size()-ofs );
104
105		// `NewellNormal()` currently has a relatively strange interface and need to
106		// re-structure things a bit to meet them.
107		size_t vidx = std::accumulate(meshout.vertcnt.begin(),begin,0);
108		for(iit = begin; iit != end; vidx += *iit++) {
109		if (!*iit) {
110		normals.push_back(IfcVector3());
111		continue;
112		}
113		for(size_t vofs = 0, cnt = 0; vofs < *iit; ++vofs) {
114		const IfcVector3& v = meshout.verts[vidx+vofs];
115		temp[cnt++] = v.x;
116		temp[cnt++] = v.y;
117		temp[cnt++] = v.z;
118		#ifdef _DEBUG
119		temp[cnt] = std::numeric_limits<IfcFloat>::quiet_NaN();
120		#endif
121		++cnt;
122		}
123
124		normals.push_back(IfcVector3());
125		NewellNormal<4,4,4>(normals.back(),*iit,&temp[0],&temp[1],&temp[2]);
126		}
127
128		if(normalize) {
129		BOOST_FOREACH(IfcVector3& n, normals) {
130		n.Normalize();
131		}
132		}
133		}
134
135		// ------------------------------------------------------------------------------------------------
136		// Compute the normal of the last polygon in the given mesh
137		IfcVector3 ComputePolygonNormal(const TempMesh& inmesh, bool normalize = true)
138		{
139		size_t total = inmesh.vertcnt.back(), vidx = inmesh.verts.size() - total;
140		std::vector<IfcFloat> temp((total+2)*3);
141		for(size_t vofs = 0, cnt = 0; vofs < total; ++vofs) {
142		const IfcVector3& v = inmesh.verts[vidx+vofs];
143		temp[cnt++] = v.x;
144		temp[cnt++] = v.y;
145		temp[cnt++] = v.z;
146		}
147		IfcVector3 nor;
148		NewellNormal<3,3,3>(nor,total,&temp[0],&temp[1],&temp[2]);
149		return normalize ? nor.Normalize() : nor;
150		}
151
152		// ------------------------------------------------------------------------------------------------
153		void FixupFaceOrientation(TempMesh& result)
154		{
155		const IfcVector3 vavg = result.Center();
156
157		std::vector<IfcVector3> normals;
158		ComputePolygonNormals(result,normals);
159
160		size_t c = 0, ofs = 0;
161		BOOST_FOREACH(unsigned int cnt, result.vertcnt) {
162		if (cnt>2){
163		const IfcVector3& thisvert = result.verts[c];
164		if (normals[ofs]*(thisvert-vavg) < 0) {
165		std::reverse(result.verts.begin()+c,result.verts.begin()+cnt+c);
166		}
167		}
168		c += cnt;
169		++ofs;
170		}
171		}
172
173		// ------------------------------------------------------------------------------------------------
174		void RecursiveMergeBoundaries(TempMesh& final_result, const TempMesh& in, const TempMesh& boundary, std::vector<IfcVector3>& normals, const IfcVector3& nor_boundary)
175		{
176		ai_assert(in.vertcnt.size() >= 1);
177		ai_assert(boundary.vertcnt.size() == 1);
178		std::vector<unsigned int>::const_iterator end = in.vertcnt.end(), begin=in.vertcnt.begin(), iit, best_iit;
179
180		TempMesh out;
181
182		// iterate through all other bounds and find the one for which the shortest connection
183		// to the outer boundary is actually the shortest possible.
184		size_t vidx = 0, best_vidx_start = 0;
185		size_t best_ofs, best_outer = boundary.verts.size();
186		IfcFloat best_dist = 1e10;
187		for(std::vector<unsigned int>::const_iterator iit = begin; iit != end; vidx += *iit++) {
188
189		for(size_t vofs = 0; vofs < *iit; ++vofs) {
190		const IfcVector3& v = in.verts[vidx+vofs];
191
192		for(size_t outer = 0; outer < boundary.verts.size(); ++outer) {
193		const IfcVector3& o = boundary.verts[outer];
194		const IfcFloat d = (o-v).SquareLength();
195
196		if (d < best_dist) {
197		best_dist = d;
198		best_ofs = vofs;
199		best_outer = outer;
200		best_iit = iit;
201		best_vidx_start = vidx;
202		}
203		}
204		}
205		}
206
207		ai_assert(best_outer != boundary.verts.size());
208
209
210		// now that we collected all vertex connections to be added, build the output polygon
211		const size_t cnt = boundary.verts.size() + *best_iit+2;
212		out.verts.reserve(cnt);
213
214		for(size_t outer = 0; outer < boundary.verts.size(); ++outer) {
215		const IfcVector3& o = boundary.verts[outer];
216		out.verts.push_back(o);
217
218		if (outer == best_outer) {
219		for(size_t i = best_ofs; i < *best_iit; ++i) {
220		out.verts.push_back(in.verts[best_vidx_start + i]);
221		}
222
223		// we need the first vertex of the inner polygon twice as we return to the
224		// outer loop through the very same connection through which we got there.
225		for(size_t i = 0; i <= best_ofs; ++i) {
226		out.verts.push_back(in.verts[best_vidx_start + i]);
227		}
228
229		// reverse face winding if the normal of the sub-polygon points in the
230		// same direction as the normal of the outer polygonal boundary
231		if (normals[std::distance(begin,best_iit)] * nor_boundary > 0) {
232		std::reverse(out.verts.rbegin(),out.verts.rbegin()+*best_iit+1);
233		}
234
235		// also append a copy of the initial insertion point to be able to continue the outer polygon
236		out.verts.push_back(o);
237		}
238		}
239		out.vertcnt.push_back(cnt);
240		ai_assert(out.verts.size() == cnt);
241
242		if (in.vertcnt.size()-std::count(begin,end,0) > 1) {
243		// Recursively apply the same algorithm if there are more boundaries to merge. The
244		// current implementation is relatively inefficient, though.
245
246		TempMesh temp;
247
248		// drop the boundary that we just processed
249		const size_t dist = std::distance(begin, best_iit);
250		TempMesh remaining = in;
251		remaining.vertcnt.erase(remaining.vertcnt.begin() + dist);
252		remaining.verts.erase(remaining.verts.begin()+best_vidx_start,remaining.verts.begin()+best_vidx_start+*best_iit);
253
254		normals.erase(normals.begin() + dist);
255		RecursiveMergeBoundaries(temp,remaining,out,normals,nor_boundary);
256
257		final_result.Append(temp);
258		}
259		else final_result.Append(out);
260		}
261
262		// ------------------------------------------------------------------------------------------------
263		void MergePolygonBoundaries(TempMesh& result, const TempMesh& inmesh, size_t master_bounds = -1)
264		{
265		// standard case - only one boundary, just copy it to the result vector
266		if (inmesh.vertcnt.size() <= 1) {
	86	void ProcessPolygonBoundaries(TempMesh& result, const TempMesh& inmesh, size_t master_bounds = (size_t)-1)
	87	{
	88	// handle all trivial cases
	89	if(inmesh.vertcnt.empty()) {
	90	return;
	91	}
	92	if(inmesh.vertcnt.size() == 1) {
267	93	result.Append(inmesh);
268	94	return;
269	95	}
270	96
271		result.vertcnt.reserve(inmesh.vertcnt.size()+result.vertcnt.size());
272
273		// XXX get rid of the extra copy if possible
274		TempMesh meshout = inmesh;
275
276		// handle polygons with holes. Our built in triangulation won't handle them as is, but
277		// the ear cutting algorithm is solid enough to deal with them if we join the inner
278		// holes with the outer boundaries by dummy connections.
279		IFCImporter::LogDebug("fixing polygon with holes for triangulation via ear-cutting");
280		std::vector<unsigned int>::iterator outer_polygon = meshout.vertcnt.end(), begin=meshout.vertcnt.begin(), end=outer_polygon, iit;
281
282		// each hole results in two extra vertices
283		result.verts.reserve(meshout.verts.size()+meshout.vertcnt.size()*2+result.verts.size());
284		size_t outer_polygon_start = 0;
285
	97	ai_assert(std::count(inmesh.vertcnt.begin(), inmesh.vertcnt.end(), 0) == 0);
	98
	99	typedef std::vector<unsigned int>::const_iterator face_iter;
	100
	101	face_iter begin = inmesh.vertcnt.begin(), end = inmesh.vertcnt.end(), iit;
	102	std::vector<unsigned int>::const_iterator outer_polygon_it = end;
	103
	104	// major task here: given a list of nested polygon boundaries (one of which
	105	// is the outer contour), reduce the triangulation task arising here to
	106	// one that can be solved using the "quadrulation" algorithm which we use
	107	// for pouring windows out of walls. The algorithm does not handle all
	108	// cases but at least it is numerically stable and gives "nice" triangles.
	109
	110	// first compute normals for all polygons using Newell's algorithm
286	111	// do not normalize 'normals', we need the original length for computing the polygon area
287	112	std::vector<IfcVector3> normals;
288		ComputePolygonNormals(meshout,normals,false);
289
290		// see if one of the polygons is a IfcFaceOuterBound (in which case `master_bounds` is its index).
291		// sadly we can't rely on it, the docs say 'At most one of the bounds shall be of the type IfcFaceOuterBound'
	113	inmesh.ComputePolygonNormals(normals,false);
	114
	115	// One of the polygons might be a IfcFaceOuterBound (in which case `master_bounds`
	116	// is its index). Sadly we can't rely on it, the docs say 'At most one of the bounds
	117	// shall be of the type IfcFaceOuterBound'
292	118	IfcFloat area_outer_polygon = 1e-10f;
293	119	if (master_bounds != (size_t)-1) {
294		outer_polygon = begin + master_bounds;
295		outer_polygon_start = std::accumulate(begin,outer_polygon,0);
296		area_outer_polygon = normals[master_bounds].SquareLength();
	120	ai_assert(master_bounds < inmesh.vertcnt.size());
	121	outer_polygon_it = begin + master_bounds;
297	122	}
298	123	else {
299		size_t vidx = 0;
300		for(iit = begin; iit != meshout.vertcnt.end(); vidx += *iit++) {
301		// find the polygon with the largest area, it must be the outer bound.
	124	for(iit = begin; iit != end; iit++) {
	125	// find the polygon with the largest area and take it as the outer bound.
302	126	IfcVector3& n = normals[std::distance(begin,iit)];
303	127	const IfcFloat area = n.SquareLength();
304	128	if (area > area_outer_polygon) {
305	129	area_outer_polygon = area;
306		outer_polygon = iit;
307		outer_polygon_start = vidx;
308		}
309		}
310		}
311
312		ai_assert(outer_polygon != meshout.vertcnt.end());
313		std::vector<IfcVector3>& in = meshout.verts;
314
315		// skip over extremely small boundaries - this is a workaround to fix cases
316		// in which the number of holes is so extremely large that the
317		// triangulation code fails.
318		#define IFC_VERTICAL_HOLE_SIZE_THRESHOLD 0.000001f
319		size_t vidx = 0, removed = 0, index = 0;
320		const IfcFloat threshold = area_outer_polygon * IFC_VERTICAL_HOLE_SIZE_THRESHOLD;
321		for(iit = begin; iit != end ;++index) {
322		const IfcFloat sqlen = normals[index].SquareLength();
323		if (sqlen < threshold) {
324		std::vector<IfcVector3>::iterator inbase = in.begin()+vidx;
325		in.erase(inbase,inbase+*iit);
326
327		outer_polygon_start -= outer_polygon_start>vidx ? *iit : 0;
328		*iit++ = 0;
329		++removed;
330
331		IFCImporter::LogDebug("skip small hole below threshold");
332		}
333		else {
334		normals[index] /= sqrt(sqlen);
335		vidx += *iit++;
336		}
337		}
338
339		// see if one or more of the hole has a face that lies directly on an outer bound.
340		// this happens for doors, for example.
341		vidx = 0;
342		for(iit = begin; ; vidx += *iit++) {
343		next_loop:
344		if (iit == end) {
345		break;
346		}
347		if (iit == outer_polygon) {
	130	outer_polygon_it = iit;
	131	}
	132	}
	133	}
	134
	135	ai_assert(outer_polygon_it != end);
	136
	137	const size_t outer_polygon_size = *outer_polygon_it;
	138	const IfcVector3& master_normal = normals[std::distance(begin, outer_polygon_it)];
	139
	140	// Generate fake openings to meet the interface for the quadrulate
	141	// algorithm. It boils down to generating small boxes given the
	142	// inner polygon and the surface normal of the outer contour.
	143	// It is important that we use the outer contour's normal because
	144	// this is the plane onto which the quadrulate algorithm will
	145	// project the entire mesh.
	146	std::vector<TempOpening> fake_openings;
	147	fake_openings.reserve(inmesh.vertcnt.size()-1);
	148
	149	std::vector<IfcVector3>::const_iterator vit = inmesh.verts.begin(), outer_vit;
	150
	151	for(iit = begin; iit != end; vit += *iit++) {
	152	if (iit == outer_polygon_it) {
	153	outer_vit = vit;
348	154	continue;
349	155	}
350	156
351		for(size_t vofs = 0; vofs < *iit; ++vofs) {
352		if (!*iit) {
353		continue;
354		}
355		const size_t next = (vofs+1)%*iit;
356		const IfcVector3& v = in[vidx+vofs], &vnext = in[vidx+next],&vd = (vnext-v).Normalize();
357
358		for(size_t outer = 0; outer < *outer_polygon; ++outer) {
359		const IfcVector3& o = in[outer_polygon_start+outer], &onext = in[outer_polygon_start+(outer+1)%*outer_polygon], &od = (onext-o).Normalize();
360
361		if (fabs(vd * od) > 1.f-1e-6f && (onext-v).Normalize() * vd > 1.f-1e-6f && (onext-v)*(o-v) < 0) {
362		IFCImporter::LogDebug("got an inner hole that lies partly on the outer polygonal boundary, merging them to a single contour");
363
364		// in between outer and outer+1 insert all vertices of this loop, then drop the original altogether.
365		std::vector<IfcVector3> tmp(*iit);
366
367		const size_t start = (v-o).SquareLength() > (vnext-o).SquareLength() ? vofs : next;
368		std::vector<IfcVector3>::iterator inbase = in.begin()+vidx, it = std::copy(inbase+start, inbase+*iit,tmp.begin());
369		std::copy(inbase, inbase+start,it);
370		std::reverse(tmp.begin(),tmp.end());
371
372		in.insert(in.begin()+outer_polygon_start+(outer+1)%*outer_polygon,tmp.begin(),tmp.end());
373		vidx += outer_polygon_start<vidx ? *iit : 0;
374
375		inbase = in.begin()+vidx;
376		in.erase(inbase,inbase+*iit);
377
378		outer_polygon_start -= outer_polygon_start>vidx ? *iit : 0;
379
380		*outer_polygon += tmp.size();
381		*iit++ = 0;
382		++removed;
383		goto next_loop;
384		}
385		}
386		}
387		}
388
389		if ( meshout.vertcnt.size() - removed <= 1) {
390		result.Append(meshout);
391		return;
392		}
393
394		// extract the outer boundary and move it to a separate mesh
395		TempMesh boundary;
396		boundary.vertcnt.resize(1,*outer_polygon);
397		boundary.verts.resize(*outer_polygon);
398
399		std::vector<IfcVector3>::iterator b = in.begin()+outer_polygon_start;
400		std::copy(b,b+*outer_polygon,boundary.verts.begin());
401		in.erase(b,b+*outer_polygon);
402
403		std::vector<IfcVector3>::iterator norit = normals.begin()+std::distance(meshout.vertcnt.begin(),outer_polygon);
404		const IfcVector3 nor_boundary = *norit;
405		normals.erase(norit);
406		meshout.vertcnt.erase(outer_polygon);
407
408		// keep merging the closest inner boundary with the outer boundary until no more boundaries are left
409		RecursiveMergeBoundaries(result,meshout,boundary,normals,nor_boundary);
410		}
411
	157	// Filter degenerate polygons to keep them from causing trouble later on
	158	IfcVector3& n = normals[std::distance(begin,iit)];
	159	const IfcFloat area = n.SquareLength();
	160	if (area < 1e-5f) {
	161	IFCImporter::LogWarn("skipping degenerate polygon (ProcessPolygonBoundaries)");
	162	continue;
	163	}
	164
	165	fake_openings.push_back(TempOpening());
	166	TempOpening& opening = fake_openings.back();
	167
	168	opening.extrusionDir = master_normal;
	169	opening.solid = NULL;
	170
	171	opening.profileMesh = boost::make_shared<TempMesh>();
	172	opening.profileMesh->verts.reserve(*iit);
	173	opening.profileMesh->vertcnt.push_back(*iit);
	174
	175	std::copy(vit, vit + *iit, std::back_inserter(opening.profileMesh->verts));
	176	}
	177
	178	// fill a mesh with ONLY the main polygon
	179	TempMesh temp;
	180	temp.verts.reserve(outer_polygon_size);
	181	temp.vertcnt.push_back(outer_polygon_size);
	182	std::copy(outer_vit, outer_vit+outer_polygon_size,
	183	std::back_inserter(temp.verts));
	184
	185	GenerateOpenings(fake_openings, normals, temp, false, false);
	186	result.Append(temp);
	187	}
412	188
413	189	// ------------------------------------------------------------------------------------------------
414	190	void ProcessConnectedFaceSet(const IfcConnectedFaceSet& fset, TempMesh& result, ConversionData& conv)
415	191	{
416	192	BOOST_FOREACH(const IfcFace& face, fset.CfsFaces) {
417
418	193	// size_t ob = -1, cnt = 0;
419	194	TempMesh meshout;
420	195	BOOST_FOREACH(const IfcFaceBound& bound, face.Bounds) {
421	196
422		// XXX implement proper merging for polygonal loops
423	197	if(const IfcPolyLoop* const polyloop = bound.Bound->ToPtr<IfcPolyLoop>()) {
424	198	if(ProcessPolyloop(*polyloop, meshout,conv)) {
	199
	200	// The outer boundary is better determined by checking which
	201	// polygon covers the largest area.
425	202
426	203	//if(bound.ToPtr<IfcFaceOuterBound>()) {
427	204	// ob = cnt;

434	211	IFCImporter::LogWarn("skipping unknown IfcFaceBound entity, type is " + bound.Bound->GetClassName());
435	212	continue;
436	213	}
	214
	215	// And this, even though it is sometimes TRUE and sometimes FALSE,
	216	// does not really improve results.
437	217
438	218	/*if(!IsTrue(bound.Orientation)) {
439	219	size_t c = 0;

442	222	cnt += c;
443	223	}
444	224	}*/
445
446		}
447		MergePolygonBoundaries(result,meshout);
448		}
449		}
450
451
452
	225	}
	226	ProcessPolygonBoundaries(result, meshout);
	227	}
	228	}
453	229
454	230	// ------------------------------------------------------------------------------------------------
455	231	void ProcessRevolvedAreaSolid(const IfcRevolvedAreaSolid& solid, TempMesh& result, ConversionData& conv)

538	314	IFCImporter::LogDebug("generate mesh procedurally by radial extrusion (IfcRevolvedAreaSolid)");
539	315	}
540	316
541		// ------------------------------------------------------------------------------------------------
542		IfcMatrix3 DerivePlaneCoordinateSpace(const TempMesh& curmesh) {
543
	317
	318
	319	// ------------------------------------------------------------------------------------------------
	320	void ProcessSweptDiskSolid(const IfcSweptDiskSolid solid, TempMesh& result, ConversionData& conv)
	321	{
	322	const Curve* const curve = Curve::Convert(*solid.Directrix, conv);
	323	if(!curve) {
	324	IFCImporter::LogError("failed to convert Directrix curve (IfcSweptDiskSolid)");
	325	return;
	326	}
	327
	328	const unsigned int cnt_segments = 16;
	329	const IfcFloat deltaAngle = AI_MATH_TWO_PI/cnt_segments;
	330
	331	const size_t samples = curve->EstimateSampleCount(solid.StartParam,solid.EndParam);
	332
	333	result.verts.reserve(cnt_segments * samples * 4);
	334	result.vertcnt.reserve((cnt_segments - 1) * samples);
	335
	336	std::vector<IfcVector3> points;
	337	points.reserve(cnt_segments * samples);
	338
	339	TempMesh temp;
	340	curve->SampleDiscrete(temp,solid.StartParam,solid.EndParam);
	341	const std::vector<IfcVector3>& curve_points = temp.verts;
	342
	343	if(curve_points.empty()) {
	344	IFCImporter::LogWarn("curve evaluation yielded no points (IfcSweptDiskSolid)");
	345	return;
	346	}
	347
	348	IfcVector3 current = curve_points[0];
	349	IfcVector3 previous = current;
	350	IfcVector3 next;
	351
	352	IfcVector3 startvec;
	353	startvec.x = 1.0f;
	354	startvec.y = 1.0f;
	355	startvec.z = 1.0f;
	356
	357	unsigned int last_dir = 0;
	358
	359	// generate circles at the sweep positions
	360	for(size_t i = 0; i < samples; ++i) {
	361
	362	if(i != samples - 1) {
	363	next = curve_points[i + 1];
	364	}
	365
	366	// get a direction vector reflecting the approximate curvature (i.e. tangent)
	367	IfcVector3 d = (current-previous) + (next-previous);
	368
	369	d.Normalize();
	370
	371	// figure out an arbitrary point q so that (p-q) * d = 0,
	372	// try to maximize \|\|(p-q)\|\| * \|\|(p_last-q_last)\|\|
	373	IfcVector3 q;
	374	bool take_any = false;
	375
	376	for (unsigned int i = 0; i < 2; ++i, take_any = true) {
	377	if ((last_dir == 0 \|\| take_any) && abs(d.x) > 1e-6) {
	378	q.y = startvec.y;
	379	q.z = startvec.z;
	380	q.x = -(d.y * q.y + d.z * q.z) / d.x;
	381	last_dir = 0;
	382	break;
	383	}
	384	else if ((last_dir == 1 \|\| take_any) && abs(d.y) > 1e-6) {
	385	q.x = startvec.x;
	386	q.z = startvec.z;
	387	q.y = -(d.x * q.x + d.z * q.z) / d.y;
	388	last_dir = 1;
	389	break;
	390	}
	391	else if ((last_dir == 2 && abs(d.z) > 1e-6) \|\| take_any) {
	392	q.y = startvec.y;
	393	q.x = startvec.x;
	394	q.z = -(d.y * q.y + d.x * q.x) / d.z;
	395	last_dir = 2;
	396	break;
	397	}
	398	}
	399
	400	q *= solid.Radius / q.Length();
	401	startvec = q;
	402
	403	// generate a rotation matrix to rotate q around d
	404	IfcMatrix4 rot;
	405	IfcMatrix4::Rotation(deltaAngle,d,rot);
	406
	407	for (unsigned int seg = 0; seg < cnt_segments; ++seg, q *= rot ) {
	408	points.push_back(q + current);
	409	}
	410
	411	previous = current;
	412	current = next;
	413	}
	414
	415	// make quads
	416	for(size_t i = 0; i < samples - 1; ++i) {
	417
	418	const aiVector3D& this_start = points[ i * cnt_segments ];
	419
	420	// locate corresponding point on next sample ring
	421	unsigned int best_pair_offset = 0;
	422	float best_distance_squared = 1e10f;
	423	for (unsigned int seg = 0; seg < cnt_segments; ++seg) {
	424	const aiVector3D& p = points[ (i+1) * cnt_segments + seg];
	425	const float l = (p-this_start).SquareLength();
	426
	427	if(l < best_distance_squared) {
	428	best_pair_offset = seg;
	429	best_distance_squared = l;
	430	}
	431	}
	432
	433	for (unsigned int seg = 0; seg < cnt_segments; ++seg) {
	434
	435	result.verts.push_back(points[ i * cnt_segments + (seg % cnt_segments)]);
	436	result.verts.push_back(points[ i * cnt_segments + (seg + 1) % cnt_segments]);
	437	result.verts.push_back(points[ (i+1) * cnt_segments + ((seg + 1 + best_pair_offset) % cnt_segments)]);
	438	result.verts.push_back(points[ (i+1) * cnt_segments + ((seg + best_pair_offset) % cnt_segments)]);
	439
	440	IfcVector3& v1 = *(result.verts.end()-1);
	441	IfcVector3& v2 = *(result.verts.end()-2);
	442	IfcVector3& v3 = *(result.verts.end()-3);
	443	IfcVector3& v4 = *(result.verts.end()-4);
	444
	445	if (((v4-v3) ^ (v4-v1)) * (v4 - curve_points[i]) < 0.0f) {
	446	std::swap(v4, v1);
	447	std::swap(v3, v2);
	448	}
	449
	450	result.vertcnt.push_back(4);
	451	}
	452	}
	453
	454	IFCImporter::LogDebug("generate mesh procedurally by sweeping a disk along a curve (IfcSweptDiskSolid)");
	455	}
	456
	457	// ------------------------------------------------------------------------------------------------
	458	IfcMatrix3 DerivePlaneCoordinateSpace(const TempMesh& curmesh, bool& ok, IfcVector3& norOut)
	459	{
544	460	const std::vector<IfcVector3>& out = curmesh.verts;
545	461	IfcMatrix3 m;
546	462
	463	ok = true;
	464
	465	// The input "mesh" must be a single polygon
547	466	const size_t s = out.size();
548	467	assert(curmesh.vertcnt.size() == 1 && curmesh.vertcnt.back() == s);
549	468
550	469	const IfcVector3 any_point = out[s-1];
551	470	IfcVector3 nor;
552	471
553		// The input polygon is arbitrarily shaped, so we might need some tries
554		// until we find a suitable normal (and it does not even need to be
555		// right in all cases, Newell's algorithm would be the correct one ... ).
556		size_t base = s-curmesh.vertcnt.back(), i, j;
557		for (i = base; i < s-1; ++i) {
558		for (j = i+1; j < s; ++j) {
	472	// The input polygon is arbitrarily shaped, therefore we might need some tries
	473	// until we find a suitable normal. Note that Newell's algorithm would give
	474	// a more robust result, but this variant also gives us a suitable first
	475	// axis for the 2D coordinate space on the polygon plane, exploiting the
	476	// fact that the input polygon is nearly always a quad.
	477	bool done = false;
	478	size_t i, j;
	479	for (i = 0; !done && i < s-2; done \|\| ++i) {
	480	for (j = i+1; j < s-1; ++j) {
559	481	nor = -((out[i]-any_point)^(out[j]-any_point));
560	482	if(fabs(nor.Length()) > 1e-8f) {
561		goto out;
562		}
563		}
564		}
565
566		assert(0);
567
568		out:
	483	done = true;
	484	break;
	485	}
	486	}
	487	}
	488
	489	if(!done) {
	490	ok = false;
	491	return m;
	492	}
569	493
570	494	nor.Normalize();
	495	norOut = nor;
571	496
572	497	IfcVector3 r = (out[i]-any_point);
573	498	r.Normalize();
574	499
575		// reconstruct orthonormal basis
	500	//if(d) {
	501	// d = -any_point nor;
	502	//}
	503
	504	// Reconstruct orthonormal basis
	505	// XXX use Gram Schmidt for increased robustness
576	506	IfcVector3 u = r ^ nor;
577	507	u.Normalize();
578	508

584	514	m.b2 = u.y;
585	515	m.b3 = u.z;
586	516
587		m.c1 = nor.x;
588		m.c2 = nor.y;
589		m.c3 = nor.z;
	517	m.c1 = -nor.x;
	518	m.c2 = -nor.y;
	519	m.c3 = -nor.z;
590	520
591	521	return m;
592	522	}
593	523
594		// ------------------------------------------------------------------------------------------------
595		bool TryAddOpenings_Poly2Tri(const std::vector<TempOpening>& openings,const std::vector<IfcVector3>& nors, TempMesh& curmesh)
596		{
597		std::vector<IfcVector3>& out = curmesh.verts;
598
599		bool result = false;
600
601		// Try to derive a solid base plane within the current surface for use as
602		// working coordinate system.
603		const IfcMatrix3& m = DerivePlaneCoordinateSpace(curmesh);
604		const IfcMatrix3 minv = IfcMatrix3(m).Inverse();
605		const IfcVector3& nor = IfcVector3(m.c1, m.c2, m.c3);
606
607		IfcFloat coord = -1;
608
609		std::vector<IfcVector2> contour_flat;
610		contour_flat.reserve(out.size());
611
612		IfcVector2 vmin, vmax;
613		MinMaxChooser<IfcVector2>()(vmin, vmax);
614
615		// Move all points into the new coordinate system, collecting min/max verts on the way
616		BOOST_FOREACH(IfcVector3& x, out) {
617		const IfcVector3 vv = m * x;
618
619		// keep Z offset in the plane coordinate system. Ignoring precision issues
620		// (which are present, of course), this should be the same value for
621		// all polygon vertices (assuming the polygon is planar).
622
623
624		// XXX this should be guarded, but we somehow need to pick a suitable
625		// epsilon
626		// if(coord != -1.0f) {
627		// assert(fabs(coord - vv.z) < 1e-3f);
628		// }
629
630		coord = vv.z;
631
632		vmin = std::min(IfcVector2(vv.x, vv.y), vmin);
633		vmax = std::max(IfcVector2(vv.x, vv.y), vmax);
634
635		contour_flat.push_back(IfcVector2(vv.x,vv.y));
636		}
637
638		// With the current code in DerivePlaneCoordinateSpace,
639		// vmin,vmax should always be the 0...1 rectangle (+- numeric inaccuracies)
640		// but here we won't rely on this.
641
642		vmax -= vmin;
643
644		// If this happens then the projection must have been wrong.
645		assert(vmax.Length());
646
647		ClipperLib::ExPolygons clipped;
648		ClipperLib::Polygons holes_union;
649
650
651		IfcVector3 wall_extrusion;
652		bool do_connections = false, first = true;
653
654		try {
655
656		ClipperLib::Clipper clipper_holes;
657		size_t c = 0;
658
659		BOOST_FOREACH(const TempOpening& t,openings) {
660		const IfcVector3& outernor = nors[c++];
661		const IfcFloat dot = nor * outernor;
662		if (fabs(dot)<1.f-1e-6f) {
663		continue;
664		}
665
666		const std::vector<IfcVector3>& va = t.profileMesh->verts;
667		if(va.size() <= 2) {
668		continue;
669		}
670
671		std::vector<IfcVector2> contour;
672
673		BOOST_FOREACH(const IfcVector3& xx, t.profileMesh->verts) {
674		IfcVector3 vv = m * xx, vv_extr = m * (xx + t.extrusionDir);
675
676		const bool is_extruded_side = fabs(vv.z - coord) > fabs(vv_extr.z - coord);
677		if (first) {
678		first = false;
679		if (dot > 0.f) {
680		do_connections = true;
681		wall_extrusion = t.extrusionDir;
682		if (is_extruded_side) {
683		wall_extrusion = - wall_extrusion;
684		}
685		}
686		}
687
688		// XXX should not be necessary - but it is. Why? For precision reasons?
689		vv = is_extruded_side ? vv_extr : vv;
690		contour.push_back(IfcVector2(vv.x,vv.y));
691		}
692
693		ClipperLib::Polygon hole;
694		BOOST_FOREACH(IfcVector2& pip, contour) {
695		pip.x = (pip.x - vmin.x) / vmax.x;
696		pip.y = (pip.y - vmin.y) / vmax.y;
697
698		hole.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
699		}
700
701		if (!ClipperLib::Orientation(hole)) {
702		std::reverse(hole.begin(), hole.end());
703		// assert(ClipperLib::Orientation(hole));
704		}
705
706		/*ClipperLib::Polygons pol_temp(1), pol_temp2(1);
707		pol_temp[0] = hole;
708
709		ClipperLib::OffsetPolygons(pol_temp,pol_temp2,5.0);
710		hole = pol_temp2[0];*/
711
712		clipper_holes.AddPolygon(hole,ClipperLib::ptSubject);
713		}
714
715		clipper_holes.Execute(ClipperLib::ctUnion,holes_union,
716		ClipperLib::pftNonZero,
717		ClipperLib::pftNonZero);
718
719		if (holes_union.empty()) {
720		return false;
721		}
722
723		// Now that we have the big union of all holes, subtract it from the outer contour
724		// to obtain the final polygon to feed into the triangulator.
725		{
726		ClipperLib::Polygon poly;
727		BOOST_FOREACH(IfcVector2& pip, contour_flat) {
728		pip.x = (pip.x - vmin.x) / vmax.x;
729		pip.y = (pip.y - vmin.y) / vmax.y;
730
731		poly.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
732		}
733
734		if (ClipperLib::Orientation(poly)) {
735		std::reverse(poly.begin(), poly.end());
736		}
737		clipper_holes.Clear();
738		clipper_holes.AddPolygon(poly,ClipperLib::ptSubject);
739
740		clipper_holes.AddPolygons(holes_union,ClipperLib::ptClip);
741		clipper_holes.Execute(ClipperLib::ctDifference,clipped,
742		ClipperLib::pftNonZero,
743		ClipperLib::pftNonZero);
744		}
745
746		}
747		catch (const char* sx) {
748		IFCImporter::LogError("Ifc: error during polygon clipping, skipping openings for this face: (Clipper: "
749		+ std::string(sx) + ")");
750
751		return false;
752		}
753
754		std::vector<IfcVector3> old_verts;
755		std::vector<unsigned int> old_vertcnt;
756
757		old_verts.swap(curmesh.verts);
758		old_vertcnt.swap(curmesh.vertcnt);
759
760
761		// add connection geometry to close the adjacent 'holes' for the openings
762		// this should only be done from one side of the wall or the polygons
763		// would be emitted twice.
764		if (false && do_connections) {
765
766		std::vector<IfcVector3> tmpvec;
767		BOOST_FOREACH(ClipperLib::Polygon& opening, holes_union) {
768
769		assert(ClipperLib::Orientation(opening));
770
771		tmpvec.clear();
772
773		BOOST_FOREACH(ClipperLib::IntPoint& point, opening) {
774
775		tmpvec.push_back( minv * IfcVector3(
776		vmin.x + from_int64(point.X) * vmax.x,
777		vmin.y + from_int64(point.Y) * vmax.y,
778		coord));
779		}
780
781		for(size_t i = 0, size = tmpvec.size(); i < size; ++i) {
782		const size_t next = (i+1)%size;
783
784		curmesh.vertcnt.push_back(4);
785
786		const IfcVector3& in_world = tmpvec[i];
787		const IfcVector3& next_world = tmpvec[next];
788
789		// Assumptions: no 'partial' openings, wall thickness roughly the same across the wall
790		curmesh.verts.push_back(in_world);
791		curmesh.verts.push_back(in_world+wall_extrusion);
792		curmesh.verts.push_back(next_world+wall_extrusion);
793		curmesh.verts.push_back(next_world);
794		}
795		}
796		}
797
798		std::vector< std::vector<p2t::Point*> > contours;
799		BOOST_FOREACH(ClipperLib::ExPolygon& clip, clipped) {
800
801		contours.clear();
802
803		// Build the outer polygon contour line for feeding into poly2tri
804		std::vector<p2t::Point*> contour_points;
805		BOOST_FOREACH(ClipperLib::IntPoint& point, clip.outer) {
806		contour_points.push_back( new p2t::Point(from_int64(point.X), from_int64(point.Y)) );
807		}
808
809		p2t::CDT* cdt ;
810		try {
811		// Note: this relies on custom modifications in poly2tri to raise runtime_error's
812		// instead if assertions. These failures are not debug only, they can actually
813		// happen in production use if the input data is broken. An assertion would be
814		// inappropriate.
815		cdt = new p2t::CDT(contour_points);
816		}
817		catch(const std::exception& e) {
818		IFCImporter::LogError("Ifc: error during polygon triangulation, skipping some openings: (poly2tri: "
819		+ std::string(e.what()) + ")");
820		continue;
821		}
822
823
824		// Build the poly2tri inner contours for all holes we got from ClipperLib
825		BOOST_FOREACH(ClipperLib::Polygon& opening, clip.holes) {
826
827		contours.push_back(std::vector<p2t::Point*>());
828		std::vector<p2t::Point*>& contour = contours.back();
829
830		BOOST_FOREACH(ClipperLib::IntPoint& point, opening) {
831		contour.push_back( new p2t::Point(from_int64(point.X), from_int64(point.Y)) );
832		}
833
834		cdt->AddHole(contour);
835		}
836
837		try {
838		// Note: See above
839		cdt->Triangulate();
840		}
841		catch(const std::exception& e) {
842		IFCImporter::LogError("Ifc: error during polygon triangulation, skipping some openings: (poly2tri: "
843		+ std::string(e.what()) + ")");
844		continue;
845		}
846
847		const std::vector<p2t::Triangle*>& tris = cdt->GetTriangles();
848
849		// Collect the triangles we just produced
850		BOOST_FOREACH(p2t::Triangle* tri, tris) {
851		for(int i = 0; i < 3; ++i) {
852
853		const IfcVector2& v = IfcVector2(
854		static_cast<IfcFloat>( tri->GetPoint(i)->x ),
855		static_cast<IfcFloat>( tri->GetPoint(i)->y )
856		);
857
858		assert(v.x <= 1.0 && v.x >= 0.0 && v.y <= 1.0 && v.y >= 0.0);
859		const IfcVector3 v3 = minv * IfcVector3(vmin.x + v.x * vmax.x, vmin.y + v.y * vmax.y,coord) ;
860
861		curmesh.verts.push_back(v3);
862		}
863		curmesh.vertcnt.push_back(3);
864		}
865
866		result = true;
867		}
868
869		if (!result) {
870		// revert -- it's a shame, but better than nothing
871		curmesh.verts.insert(curmesh.verts.end(),old_verts.begin(), old_verts.end());
872		curmesh.vertcnt.insert(curmesh.vertcnt.end(),old_vertcnt.begin(), old_vertcnt.end());
873
874		IFCImporter::LogError("Ifc: revert, could not generate openings for this wall");
875		}
876
877		return result;
878		}
879
880		// ------------------------------------------------------------------------------------------------
881		struct DistanceSorter {
882
883		DistanceSorter(const IfcVector3& base) : base(base) {}
884
885		bool operator () (const TempOpening& a, const TempOpening& b) const {
886		return (a.profileMesh->Center()-base).SquareLength() < (b.profileMesh->Center()-base).SquareLength();
887		}
888
889		IfcVector3 base;
890		};
891
892		// ------------------------------------------------------------------------------------------------
893		struct XYSorter {
894
895		// sort first by X coordinates, then by Y coordinates
896		bool operator () (const IfcVector2&a, const IfcVector2& b) const {
897		if (a.x == b.x) {
898		return a.y < b.y;
899		}
900		return a.x < b.x;
901		}
902		};
903
904		typedef std::pair< IfcVector2, IfcVector2 > BoundingBox;
905		typedef std::map<IfcVector2,size_t,XYSorter> XYSortedField;
906
907
908		// ------------------------------------------------------------------------------------------------
909		void QuadrifyPart(const IfcVector2& pmin, const IfcVector2& pmax, XYSortedField& field, const std::vector< BoundingBox >& bbs,
910		std::vector<IfcVector2>& out)
911		{
912		if (!(pmin.x-pmax.x) \|\| !(pmin.y-pmax.y)) {
913		return;
914		}
915
916		IfcFloat xs = 1e10, xe = 1e10;
917		bool found = false;
918
919		// Search along the x-axis until we find an opening
920		XYSortedField::iterator start = field.begin();
921		for(; start != field.end(); ++start) {
922		const BoundingBox& bb = bbs[(*start).second];
923		if(bb.first.x >= pmax.x) {
924		break;
925		}
926
927		if (bb.second.x > pmin.x && bb.second.y > pmin.y && bb.first.y < pmax.y) {
928		xs = bb.first.x;
929		xe = bb.second.x;
930		found = true;
931		break;
932		}
933		}
934
935		if (!found) {
936		// the rectangle [pmin,pend] is opaque, fill it
937		out.push_back(pmin);
938		out.push_back(IfcVector2(pmin.x,pmax.y));
939		out.push_back(pmax);
940		out.push_back(IfcVector2(pmax.x,pmin.y));
941		return;
942		}
943
944		xs = std::max(pmin.x,xs);
945		xe = std::min(pmax.x,xe);
946
947		// see if there's an offset to fill at the top of our quad
948		if (xs - pmin.x) {
949		out.push_back(pmin);
950		out.push_back(IfcVector2(pmin.x,pmax.y));
951		out.push_back(IfcVector2(xs,pmax.y));
952		out.push_back(IfcVector2(xs,pmin.y));
953		}
954
955		// search along the y-axis for all openings that overlap xs and our quad
956		IfcFloat ylast = pmin.y;
957		found = false;
958		for(; start != field.end(); ++start) {
959		const BoundingBox& bb = bbs[(*start).second];
960		if (bb.first.x > xs \|\| bb.first.y >= pmax.y) {
961		break;
962		}
963
964		if (bb.second.y > ylast) {
965
966		found = true;
967		const IfcFloat ys = std::max(bb.first.y,pmin.y), ye = std::min(bb.second.y,pmax.y);
968		if (ys - ylast) {
969		QuadrifyPart( IfcVector2(xs,ylast), IfcVector2(xe,ys) ,field,bbs,out);
970		}
971
972		// the following are the window vertices
973
974		/*wnd.push_back(IfcVector2(xs,ys));
975		wnd.push_back(IfcVector2(xs,ye));
976		wnd.push_back(IfcVector2(xe,ye));
977		wnd.push_back(IfcVector2(xe,ys));*/
978		ylast = ye;
979		}
980		}
981		if (!found) {
982		// the rectangle [pmin,pend] is opaque, fill it
983		out.push_back(IfcVector2(xs,pmin.y));
984		out.push_back(IfcVector2(xs,pmax.y));
985		out.push_back(IfcVector2(xe,pmax.y));
986		out.push_back(IfcVector2(xe,pmin.y));
987		return;
988		}
989		if (ylast < pmax.y) {
990		QuadrifyPart( IfcVector2(xs,ylast), IfcVector2(xe,pmax.y) ,field,bbs,out);
991		}
992
993		// now for the whole rest
994		if (pmax.x-xe) {
995		QuadrifyPart(IfcVector2(xe,pmin.y), pmax ,field,bbs,out);
996		}
997		}
998
999		// ------------------------------------------------------------------------------------------------
1000		void InsertWindowContours(const std::vector< BoundingBox >& bbs,
1001		const std::vector< std::vector<IfcVector2> >& contours,
1002		const std::vector<TempOpening>& openings,
1003		const std::vector<IfcVector3>& nors,
1004		const IfcMatrix3& minv,
1005		const IfcVector2& scale,
1006		const IfcVector2& offset,
1007		IfcFloat coord,
1008		TempMesh& curmesh)
1009		{
1010		ai_assert(contours.size() == bbs.size());
1011
1012		// fix windows - we need to insert the real, polygonal shapes into the quadratic holes that we have now
1013		for(size_t i = 0; i < contours.size();++i) {
1014		const BoundingBox& bb = bbs[i];
1015		const std::vector<IfcVector2>& contour = contours[i];
1016
1017		// check if we need to do it at all - many windows just fit perfectly into their quadratic holes,
1018		// i.e. their contours are already their bounding boxes.
1019		if (contour.size() == 4) {
1020		std::set<IfcVector2,XYSorter> verts;
1021		for(size_t n = 0; n < 4; ++n) {
1022		verts.insert(contour[n]);
1023		}
1024		const std::set<IfcVector2,XYSorter>::const_iterator end = verts.end();
1025		if (verts.find(bb.first)!=end && verts.find(bb.second)!=end
1026		&& verts.find(IfcVector2(bb.first.x,bb.second.y))!=end
1027		&& verts.find(IfcVector2(bb.second.x,bb.first.y))!=end
1028		) {
1029		continue;
1030		}
1031		}
1032
1033		const IfcFloat diag = (bb.first-bb.second).Length();
1034		const IfcFloat epsilon = diag/1000.f;
1035
1036		// walk through all contour points and find those that lie on the BB corner
1037		size_t last_hit = -1, very_first_hit = -1;
1038		IfcVector2 edge;
1039		for(size_t n = 0, e=0, size = contour.size();; n=(n+1)%size, ++e) {
1040
1041		// sanity checking
1042		if (e == size*2) {
1043		IFCImporter::LogError("encountered unexpected topology while generating window contour");
1044		break;
1045		}
1046
1047		const IfcVector2& v = contour[n];
1048
1049		bool hit = false;
1050		if (fabs(v.x-bb.first.x)<epsilon) {
1051		edge.x = bb.first.x;
1052		hit = true;
1053		}
1054		else if (fabs(v.x-bb.second.x)<epsilon) {
1055		edge.x = bb.second.x;
1056		hit = true;
1057		}
1058
1059		if (fabs(v.y-bb.first.y)<epsilon) {
1060		edge.y = bb.first.y;
1061		hit = true;
1062		}
1063		else if (fabs(v.y-bb.second.y)<epsilon) {
1064		edge.y = bb.second.y;
1065		hit = true;
1066		}
1067
1068		if (hit) {
1069		if (last_hit != (size_t)-1) {
1070
1071		const size_t old = curmesh.verts.size();
1072		size_t cnt = last_hit > n ? size-(last_hit-n) : n-last_hit;
1073		for(size_t a = last_hit, e = 0; e <= cnt; a=(a+1)%size, ++e) {
1074		// hack: this is to fix cases where opening contours are self-intersecting.
1075		// Clipper doesn't produce such polygons, but as soon as we're back in
1076		// our brave new floating-point world, very small distances are consumed
1077		// by the maximum available precision, leading to self-intersecting
1078		// polygons. This fix makes concave windows fail even worse, but
1079		// anyway, fail is fail.
1080		if ((contour[a] - edge).SquareLength() > diagdiag0.7) {
1081		continue;
1082		}
1083		const IfcVector3 v3 = minv * IfcVector3(offset.x + contour[a].x * scale.x, offset.y + contour[a].y * scale.y,coord);
1084		curmesh.verts.push_back(v3);
1085		}
1086
1087		if (edge != contour[last_hit]) {
1088
1089		IfcVector2 corner = edge;
1090
1091		if (fabs(contour[last_hit].x-bb.first.x)<epsilon) {
1092		corner.x = bb.first.x;
1093		}
1094		else if (fabs(contour[last_hit].x-bb.second.x)<epsilon) {
1095		corner.x = bb.second.x;
1096		}
1097
1098		if (fabs(contour[last_hit].y-bb.first.y)<epsilon) {
1099		corner.y = bb.first.y;
1100		}
1101		else if (fabs(contour[last_hit].y-bb.second.y)<epsilon) {
1102		corner.y = bb.second.y;
1103		}
1104
1105		const IfcVector3 v3 = minv * IfcVector3(offset.x + corner.x * scale.x, offset.y + corner.y * scale.y,coord);
1106		curmesh.verts.push_back(v3);
1107		}
1108		else if (cnt == 1) {
1109		// avoid degenerate polygons (also known as lines or points)
1110		curmesh.verts.erase(curmesh.verts.begin()+old,curmesh.verts.end());
1111		}
1112
1113		if (const size_t d = curmesh.verts.size()-old) {
1114		curmesh.vertcnt.push_back(d);
1115		std::reverse(curmesh.verts.rbegin(),curmesh.verts.rbegin()+d);
1116		}
1117		if (n == very_first_hit) {
1118		break;
1119		}
1120		}
1121		else {
1122		very_first_hit = n;
1123		}
1124
1125		last_hit = n;
1126		}
1127		}
1128		}
1129		}
1130
1131		// ------------------------------------------------------------------------------------------------
1132		void MergeContours (const std::vector<IfcVector2>& a, const std::vector<IfcVector2>& b, ClipperLib::ExPolygons& out)
1133		{
1134		ClipperLib::Clipper clipper;
1135		ClipperLib::Polygon clip;
1136
1137		BOOST_FOREACH(const IfcVector2& pip, a) {
1138		clip.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
1139		}
1140
1141		if (ClipperLib::Orientation(clip)) {
1142		std::reverse(clip.begin(), clip.end());
1143		}
1144
1145		clipper.AddPolygon(clip, ClipperLib::ptSubject);
1146		clip.clear();
1147
1148		BOOST_FOREACH(const IfcVector2& pip, b) {
1149		clip.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
1150		}
1151
1152		if (ClipperLib::Orientation(clip)) {
1153		std::reverse(clip.begin(), clip.end());
1154		}
1155
1156		clipper.AddPolygon(clip, ClipperLib::ptSubject);
1157		clipper.Execute(ClipperLib::ctUnion, out,ClipperLib::pftNonZero,ClipperLib::pftNonZero);
1158		}
1159
1160		// ------------------------------------------------------------------------------------------------
1161		bool TryAddOpenings_Quadrulate(const std::vector<TempOpening>& openings,const std::vector<IfcVector3>& nors, TempMesh& curmesh)
1162		{
1163		std::vector<IfcVector3>& out = curmesh.verts;
1164
1165		// Try to derive a solid base plane within the current surface for use as
1166		// working coordinate system.
1167		const IfcMatrix3& m = DerivePlaneCoordinateSpace(curmesh);
1168		const IfcMatrix3 minv = IfcMatrix3(m).Inverse();
1169		const IfcVector3& nor = IfcVector3(m.c1, m.c2, m.c3);
1170
1171		IfcFloat coord = -1;
1172
1173		std::vector<IfcVector2> contour_flat;
1174		contour_flat.reserve(out.size());
1175
1176		IfcVector2 vmin, vmax;
1177		MinMaxChooser<IfcVector2>()(vmin, vmax);
1178
1179		// Move all points into the new coordinate system, collecting min/max verts on the way
1180		BOOST_FOREACH(IfcVector3& x, out) {
1181		const IfcVector3 vv = m * x;
1182
1183		// keep Z offset in the plane coordinate system. Ignoring precision issues
1184		// (which are present, of course), this should be the same value for
1185		// all polygon vertices (assuming the polygon is planar).
1186
1187
1188		// XXX this should be guarded, but we somehow need to pick a suitable
1189		// epsilon
1190		// if(coord != -1.0f) {
1191		// assert(fabs(coord - vv.z) < 1e-3f);
1192		// }
1193
1194		coord = vv.z;
1195		vmin = std::min(IfcVector2(vv.x, vv.y), vmin);
1196		vmax = std::max(IfcVector2(vv.x, vv.y), vmax);
1197
1198		contour_flat.push_back(IfcVector2(vv.x,vv.y));
1199		}
1200
1201		// With the current code in DerivePlaneCoordinateSpace,
1202		// vmin,vmax should always be the 0...1 rectangle (+- numeric inaccuracies)
1203		// but here we won't rely on this.
1204
1205		vmax -= vmin;
1206		BOOST_FOREACH(IfcVector2& vv, contour_flat) {
1207		vv.x = (vv.x - vmin.x) / vmax.x;
1208		vv.y = (vv.y - vmin.y) / vmax.y;
1209		}
1210
1211		// project all points into the coordinate system defined by the p+sv*tu plane
1212		// and compute bounding boxes for them
1213		std::vector< BoundingBox > bbs;
1214		std::vector< std::vector<IfcVector2> > contours;
1215
1216		size_t c = 0;
1217		BOOST_FOREACH(const TempOpening& t,openings) {
1218		const IfcVector3& outernor = nors[c++];
1219		const IfcFloat dot = nor * outernor;
1220		if (fabs(dot)<1.f-1e-6f) {
1221		continue;
1222		}
1223
1224		const std::vector<IfcVector3>& va = t.profileMesh->verts;
1225		if(va.size() <= 2) {
1226		continue;
1227		}
1228
1229		IfcVector2 vpmin,vpmax;
1230		MinMaxChooser<IfcVector2>()(vpmin,vpmax);
1231
1232		std::vector<IfcVector2> contour;
1233
1234		BOOST_FOREACH(const IfcVector3& x, t.profileMesh->verts) {
1235		const IfcVector3 v = m * x;
1236
1237		IfcVector2 vv(v.x, v.y);
1238
1239		// rescale
1240		vv.x = (vv.x - vmin.x) / vmax.x;
1241		vv.y = (vv.y - vmin.y) / vmax.y;
1242
1243		vpmin = std::min(vpmin,vv);
1244		vpmax = std::max(vpmax,vv);
1245
1246		contour.push_back(vv);
1247		}
1248
1249		BoundingBox bb = BoundingBox(vpmin,vpmax);
1250
1251		// see if this BB intersects any other, in which case we could not use the Quadrify()
1252		// algorithm and would revert to Poly2Tri only.
1253		for (std::vector<BoundingBox>::iterator it = bbs.begin(); it != bbs.end();) {
1254		const BoundingBox& ibb = *it;
1255
1256		if (ibb.first.x < bb.second.x && ibb.second.x > bb.first.x &&
1257		ibb.first.y < bb.second.y && ibb.second.y > bb.second.x) {
1258
1259		// take these two contours and try to merge them. If they overlap (which
1260		// should not happen, but in fact happens-in-the-real-world [tm] ),
1261		// resume using a single contour and a single bounding box.
1262		const std::vector<IfcVector2>& other = contours[std::distance(bbs.begin(),it)];
1263
1264		ClipperLib::ExPolygons poly;
1265		MergeContours(contour, other, poly);
1266
1267		if (poly.size() > 1) {
1268		IFCImporter::LogWarn("cannot use quadrify algorithm to generate wall openings due to "
1269		"bounding box overlaps, using poly2tri fallback");
1270		return TryAddOpenings_Poly2Tri(openings, nors, curmesh);
1271		}
1272		else if (poly.size() == 0) {
1273		IFCImporter::LogWarn("ignoring duplicate opening");
1274		contour.clear();
1275		break;
1276		}
1277		else {
1278		IFCImporter::LogDebug("merging oberlapping openings, this should not happen");
1279
1280		contour.clear();
1281		BOOST_FOREACH(const ClipperLib::IntPoint& point, poly[0].outer) {
1282		contour.push_back( IfcVector2( from_int64(point.X), from_int64(point.Y)));
1283		}
1284
1285		bb.first = std::min(bb.first, ibb.first);
1286		bb.second = std::max(bb.second, ibb.second);
1287
1288		contours.erase(contours.begin() + std::distance(bbs.begin(),it));
1289		it = bbs.erase(it);
1290		continue;
1291		}
1292		}
1293		++it;
1294		}
1295
1296		if(contour.size()) {
1297		contours.push_back(contour);
1298		bbs.push_back(bb);
1299		}
1300		}
1301
1302		if (bbs.empty()) {
1303		return false;
1304		}
1305
1306		XYSortedField field;
1307		for (std::vector<BoundingBox>::iterator it = bbs.begin(); it != bbs.end(); ++it) {
1308		if (field.find((*it).first) != field.end()) {
1309		IFCImporter::LogWarn("constraint failure during generation of wall openings, results may be faulty");
1310		}
1311		field[(*it).first] = std::distance(bbs.begin(),it);
1312		}
1313
1314		std::vector<IfcVector2> outflat;
1315		outflat.reserve(openings.size()*4);
1316		QuadrifyPart(IfcVector2(0.f,0.f),IfcVector2(1.f,1.f),field,bbs,outflat);
1317		ai_assert(!(outflat.size() % 4));
1318
1319		std::vector<IfcVector3> vold;
1320		std::vector<unsigned int> iold;
1321
1322		vold.reserve(outflat.size());
1323		iold.reserve(outflat.size() / 4);
1324
1325		// Fix the outer contour using polyclipper
1326		try {
1327
1328		ClipperLib::Polygon subject;
1329		ClipperLib::Clipper clipper;
1330		ClipperLib::ExPolygons clipped;
1331
1332		ClipperLib::Polygon clip;
1333		clip.reserve(contour_flat.size());
1334		BOOST_FOREACH(const IfcVector2& pip, contour_flat) {
1335		clip.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
1336		}
1337
1338		if (!ClipperLib::Orientation(clip)) {
1339		std::reverse(clip.begin(), clip.end());
1340		}
1341
1342		// We need to run polyclipper on every single quad -- we can't run it one all
1343		// of them at once or it would merge them all together which would undo all
1344		// previous steps
1345		subject.reserve(4);
1346		size_t cnt = 0;
1347		BOOST_FOREACH(const IfcVector2& pip, outflat) {
1348		subject.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
1349		if (!(++cnt % 4)) {
1350		if (!ClipperLib::Orientation(subject)) {
1351		std::reverse(subject.begin(), subject.end());
1352		}
1353
1354		clipper.AddPolygon(subject,ClipperLib::ptSubject);
1355		clipper.AddPolygon(clip,ClipperLib::ptClip);
1356
1357		clipper.Execute(ClipperLib::ctIntersection,clipped,ClipperLib::pftNonZero,ClipperLib::pftNonZero);
1358
1359		BOOST_FOREACH(const ClipperLib::ExPolygon& ex, clipped) {
1360		iold.push_back(ex.outer.size());
1361		BOOST_FOREACH(const ClipperLib::IntPoint& point, ex.outer) {
1362		vold.push_back( minv * IfcVector3(
1363		vmin.x + from_int64(point.X) * vmax.x,
1364		vmin.y + from_int64(point.Y) * vmax.y,
1365		coord));
1366		}
1367		}
1368
1369		subject.clear();
1370		clipped.clear();
1371		clipper.Clear();
1372		}
1373		}
1374
1375		assert(!(cnt % 4));
1376		}
1377		catch (const char* sx) {
1378		IFCImporter::LogError("Ifc: error during polygon clipping, contour line may be wrong: (Clipper: "
1379		+ std::string(sx) + ")");
1380
1381		iold.resize(outflat.size()/4,4);
1382
1383		BOOST_FOREACH(const IfcVector2& vproj, outflat) {
1384		const IfcVector3 v3 = minv * IfcVector3(vmin.x + vproj.x * vmax.x, vmin.y + vproj.y * vmax.y,coord);
1385		vold.push_back(v3);
1386		}
1387		}
1388
1389		// undo the projection, generate output quads
1390		std::swap(vold,curmesh.verts);
1391		std::swap(iold,curmesh.vertcnt);
1392
1393		InsertWindowContours(bbs,contours,openings, nors,minv,vmax, vmin, coord, curmesh);
1394		return true;
1395		}
1396
1397
1398		// ------------------------------------------------------------------------------------------------
1399		void ProcessExtrudedAreaSolid(const IfcExtrudedAreaSolid& solid, TempMesh& result, ConversionData& conv)
	524
	525	// ------------------------------------------------------------------------------------------------
	526	void ProcessExtrudedAreaSolid(const IfcExtrudedAreaSolid& solid, TempMesh& result,
	527	ConversionData& conv, bool collect_openings)
1400	528	{
1401	529	TempMesh meshout;
1402	530

1408	536	IfcVector3 dir;
1409	537	ConvertDirection(dir,solid.ExtrudedDirection);
1410	538
1411		dir *= solid.Depth;
	539	dir = solid.Depth; /
	540	if(conv.collect_openings && !conv.apply_openings) {
	541	dir *= 1000.0;
	542	} */
1412	543
1413	544	// Outline: assuming that `meshout.verts` is now a list of vertex points forming
1414	545	// the underlying profile, extrude along the given axis, forming new

1418	549	const size_t size=in.size();
1419	550
1420	551	const bool has_area = solid.SweptArea->ProfileType == "AREA" && size>2;
1421		if(solid.Depth < 1e-3) {
	552	if(solid.Depth < 1e-6) {
1422	553	if(has_area) {
1423		meshout = result;
	554	result = meshout;
1424	555	}
1425	556	return;
1426	557	}

1431	562	// First step: transform all vertices into the target coordinate space
1432	563	IfcMatrix4 trafo;
1433	564	ConvertAxisPlacement(trafo, solid.Position);
	565
	566	IfcVector3 vmin, vmax;
	567	MinMaxChooser<IfcVector3>()(vmin, vmax);
1434	568	BOOST_FOREACH(IfcVector3& v,in) {
1435	569	v *= trafo;
1436		}
	570
	571	vmin = std::min(vmin, v);
	572	vmax = std::max(vmax, v);
	573	}
	574
	575	vmax -= vmin;
	576	const IfcFloat diag = vmax.Length();
1437	577
1438	578	IfcVector3 min = in[0];
1439	579	dir *= IfcMatrix3(trafo);

1443	583
1444	584	// Compute the normal vectors for all opening polygons as a prerequisite
1445	585	// to TryAddOpenings_Poly2Tri()
	586	// XXX this belongs into the aforementioned function
1446	587	if (openings) {
1447	588
1448	589	if (!conv.settings.useCustomTriangulation) {

1450	591	// doesn't matter, but we would screw up if we started with e.g. a door in between
1451	592	// two windows.
1452	593	std::sort(conv.apply_openings->begin(),conv.apply_openings->end(),
1453		DistanceSorter(min));
	594	TempOpening::DistanceSorter(min));
1454	595	}
1455	596
1456	597	nors.reserve(conv.apply_openings->size());

1482	623	out.push_back(in[next]);
1483	624
1484	625	if(openings) {
1485		if(TryAddOpenings_Quadrulate(*conv.apply_openings,nors,temp)) {
	626	if((in[i]-in[next]).Length() > diag * 0.1 && GenerateOpenings(*conv.apply_openings,nors,temp,true, true, dir)) {
1486	627	++sides_with_openings;
1487	628	}
1488	629

1490	631	temp.Clear();
1491	632	}
1492	633	}
	634
	635	if(openings) {
	636	BOOST_FOREACH(TempOpening& opening, *conv.apply_openings) {
	637	if (!opening.wallPoints.empty()) {
	638	IFCImporter::LogError("failed to generate all window caps");
	639	}
	640	opening.wallPoints.clear();
	641	}
	642	}
1493	643
1494	644	size_t sides_with_v_openings = 0;
1495	645	if(has_area) {

1501	651
1502	652	curmesh.vertcnt.push_back(size);
1503	653	if(openings && size > 2) {
1504		if(TryAddOpenings_Quadrulate(*conv.apply_openings,nors,temp)) {
	654	if(GenerateOpenings(*conv.apply_openings,nors,temp,true, true, dir)) {
1505	655	++sides_with_v_openings;
1506	656	}
1507	657

1511	661	}
1512	662	}
1513	663
1514
1515		if(openings && ((sides_with_openings != 2 && sides_with_openings) \|\| (sides_with_v_openings != 2 && sides_with_v_openings))) {
	664	if(openings && ((sides_with_openings == 1 && sides_with_openings) \|\| (sides_with_v_openings == 2 && sides_with_v_openings))) {
1516	665	IFCImporter::LogWarn("failed to resolve all openings, presumably their topology is not supported by Assimp");
1517	666	}
1518	667
1519	668	IFCImporter::LogDebug("generate mesh procedurally by extrusion (IfcExtrudedAreaSolid)");
1520		}
1521
1522
1523
1524		// ------------------------------------------------------------------------------------------------
1525		void ProcessSweptAreaSolid(const IfcSweptAreaSolid& swept, TempMesh& meshout, ConversionData& conv)
	669
	670	// If this is an opening element, store both the extruded mesh and the 2D profile mesh
	671	// it was created from. Return an empty mesh to the caller.
	672	if(collect_openings && !result.IsEmpty()) {
	673	ai_assert(conv.collect_openings);
	674	boost::shared_ptr<TempMesh> profile = boost::shared_ptr<TempMesh>(new TempMesh());
	675	profile->Swap(result);
	676
	677	boost::shared_ptr<TempMesh> profile2D = boost::shared_ptr<TempMesh>(new TempMesh());
	678	profile2D->Swap(meshout);
	679	conv.collect_openings->push_back(TempOpening(&solid,dir,profile, profile2D));
	680
	681	ai_assert(result.IsEmpty());
	682	}
	683	}
	684
	685	// ------------------------------------------------------------------------------------------------
	686	void ProcessSweptAreaSolid(const IfcSweptAreaSolid& swept, TempMesh& meshout,
	687	ConversionData& conv)
1526	688	{
1527	689	if(const IfcExtrudedAreaSolid* const solid = swept.ToPtr<IfcExtrudedAreaSolid>()) {
1528		// Do we just collect openings for a parent element (i.e. a wall)?
1529		// In this case we don't extrude the surface yet, just keep the profile and transform it correctly
1530		if(conv.collect_openings) {
1531		boost::shared_ptr<TempMesh> meshtmp(new TempMesh());
1532		ProcessProfile(swept.SweptArea,*meshtmp,conv);
1533
1534		IfcMatrix4 m;
1535		ConvertAxisPlacement(m,solid->Position);
1536		meshtmp->Transform(m);
1537
1538		IfcVector3 dir;
1539		ConvertDirection(dir,solid->ExtrudedDirection);
1540		conv.collect_openings->push_back(TempOpening(solid, IfcMatrix3(m) * (dir*static_cast<IfcFloat>(solid->Depth)),meshtmp));
1541		return;
1542		}
1543
1544		ProcessExtrudedAreaSolid(*solid,meshout,conv);
	690	ProcessExtrudedAreaSolid(*solid,meshout,conv, !!conv.collect_openings);
1545	691	}
1546	692	else if(const IfcRevolvedAreaSolid* const rev = swept.ToPtr<IfcRevolvedAreaSolid>()) {
1547	693	ProcessRevolvedAreaSolid(*rev,meshout,conv);

1551	697	}
1552	698	}
1553	699
1554
1555		// ------------------------------------------------------------------------------------------------
1556		enum Intersect {
1557		Intersect_No,
1558		Intersect_LiesOnPlane,
1559		Intersect_Yes
1560		};
1561
1562		// ------------------------------------------------------------------------------------------------
1563		Intersect IntersectSegmentPlane(const IfcVector3& p,const IfcVector3& n, const IfcVector3& e0, const IfcVector3& e1, IfcVector3& out)
1564		{
1565		const IfcVector3 pdelta = e0 - p, seg = e1-e0;
1566		const IfcFloat dotOne = nseg, dotTwo = -(npdelta);
1567
1568		if (fabs(dotOne) < 1e-6) {
1569		return fabs(dotTwo) < 1e-6f ? Intersect_LiesOnPlane : Intersect_No;
1570		}
1571
1572		const IfcFloat t = dotTwo/dotOne;
1573		// t must be in [0..1] if the intersection point is within the given segment
1574		if (t > 1.f \|\| t < 0.f) {
1575		return Intersect_No;
1576		}
1577		out = e0+t*seg;
1578		return Intersect_Yes;
1579		}
1580
1581		// ------------------------------------------------------------------------------------------------
1582		void ProcessBoolean(const IfcBooleanResult& boolean, TempMesh& result, ConversionData& conv)
1583		{
1584		if(const IfcBooleanResult* const clip = boolean.ToPtr<IfcBooleanResult>()) {
1585		if(clip->Operator != "DIFFERENCE") {
1586		IFCImporter::LogWarn("encountered unsupported boolean operator: " + (std::string)clip->Operator);
1587		return;
1588		}
1589
1590		TempMesh meshout;
1591		const IfcHalfSpaceSolid* const hs = clip->SecondOperand->ResolveSelectPtr<IfcHalfSpaceSolid>(conv.db);
1592		if(!hs) {
1593		IFCImporter::LogError("expected IfcHalfSpaceSolid as second clipping operand");
1594		return;
1595		}
1596
1597		const IfcPlane* const plane = hs->BaseSurface->ToPtr<IfcPlane>();
1598		if(!plane) {
1599		IFCImporter::LogError("expected IfcPlane as base surface for the IfcHalfSpaceSolid");
1600		return;
1601		}
1602
1603		if(const IfcBooleanResult* const op0 = clip->FirstOperand->ResolveSelectPtr<IfcBooleanResult>(conv.db)) {
1604		ProcessBoolean(*op0,meshout,conv);
1605		}
1606		else if (const IfcSweptAreaSolid* const swept = clip->FirstOperand->ResolveSelectPtr<IfcSweptAreaSolid>(conv.db)) {
1607		ProcessSweptAreaSolid(*swept,meshout,conv);
1608		}
1609		else {
1610		IFCImporter::LogError("expected IfcSweptAreaSolid or IfcBooleanResult as first clipping operand");
1611		return;
1612		}
1613
1614		// extract plane base position vector and normal vector
1615		IfcVector3 p,n(0.f,0.f,1.f);
1616		if (plane->Position->Axis) {
1617		ConvertDirection(n,plane->Position->Axis.Get());
1618		}
1619		ConvertCartesianPoint(p,plane->Position->Location);
1620
1621		if(!IsTrue(hs->AgreementFlag)) {
1622		n *= -1.f;
1623		}
1624
1625		// clip the current contents of `meshout` against the plane we obtained from the second operand
1626		const std::vector<IfcVector3>& in = meshout.verts;
1627		std::vector<IfcVector3>& outvert = result.verts;
1628		std::vector<unsigned int>::const_iterator begin=meshout.vertcnt.begin(), end=meshout.vertcnt.end(), iit;
1629
1630		outvert.reserve(in.size());
1631		result.vertcnt.reserve(meshout.vertcnt.size());
1632
1633		unsigned int vidx = 0;
1634		for(iit = begin; iit != end; vidx += *iit++) {
1635
1636		unsigned int newcount = 0;
1637		for(unsigned int i = 0; i < *iit; ++i) {
1638		const IfcVector3& e0 = in[vidx+i], e1 = in[vidx+(i+1)%*iit];
1639
1640		// does the next segment intersect the plane?
1641		IfcVector3 isectpos;
1642		const Intersect isect = IntersectSegmentPlane(p,n,e0,e1,isectpos);
1643		if (isect == Intersect_No \|\| isect == Intersect_LiesOnPlane) {
1644		if ( (e0-p).Normalize()*n > 0 ) {
1645		outvert.push_back(e0);
1646		++newcount;
1647		}
1648		}
1649		else if (isect == Intersect_Yes) {
1650		if ( (e0-p).Normalize()*n > 0 ) {
1651		// e0 is on the right side, so keep it
1652		outvert.push_back(e0);
1653		outvert.push_back(isectpos);
1654		newcount += 2;
1655		}
1656		else {
1657		// e0 is on the wrong side, so drop it and keep e1 instead
1658		outvert.push_back(isectpos);
1659		++newcount;
1660		}
1661		}
1662		}
1663
1664		if (!newcount) {
1665		continue;
1666		}
1667
1668		IfcVector3 vmin,vmax;
1669		ArrayBounds(&*(outvert.end()-newcount),newcount,vmin,vmax);
1670
1671		// filter our IfcFloat points - those may happen if a point lies
1672		// directly on the intersection line. However, due to IfcFloat
1673		// precision a bitwise comparison is not feasible to detect
1674		// this case.
1675		const IfcFloat epsilon = (vmax-vmin).SquareLength() / 1e6f;
1676		FuzzyVectorCompare fz(epsilon);
1677
1678		std::vector<IfcVector3>::iterator e = std::unique( outvert.end()-newcount, outvert.end(), fz );
1679		if (e != outvert.end()) {
1680		newcount -= static_cast<unsigned int>(std::distance(e,outvert.end()));
1681		outvert.erase(e,outvert.end());
1682		}
1683		if (fz(*( outvert.end()-newcount),outvert.back())) {
1684		outvert.pop_back();
1685		--newcount;
1686		}
1687		if(newcount > 2) {
1688		result.vertcnt.push_back(newcount);
1689		}
1690		else while(newcount-->0)result.verts.pop_back();
1691
1692		}
1693		IFCImporter::LogDebug("generating CSG geometry by plane clipping (IfcBooleanClippingResult)");
1694		}
1695		else {
1696		IFCImporter::LogWarn("skipping unknown IfcBooleanResult entity, type is " + boolean.GetClassName());
1697		}
1698		}
1699
1700
1701
1702		// ------------------------------------------------------------------------------------------------
1703		bool ProcessGeometricItem(const IfcRepresentationItem& geo, std::vector<unsigned int>& mesh_indices, ConversionData& conv)
1704		{
1705		TempMesh meshtmp;
	700	// ------------------------------------------------------------------------------------------------
	701	bool ProcessGeometricItem(const IfcRepresentationItem& geo, std::vector<unsigned int>& mesh_indices,
	702	ConversionData& conv)
	703	{
	704	bool fix_orientation = true;
	705	boost::shared_ptr< TempMesh > meshtmp = boost::make_shared<TempMesh>();
1706	706	if(const IfcShellBasedSurfaceModel* shellmod = geo.ToPtr<IfcShellBasedSurfaceModel>()) {
1707	707	BOOST_FOREACH(boost::shared_ptr<const IfcShell> shell,shellmod->SbsmBoundary) {
1708	708	try {
1709	709	const EXPRESS::ENTITY& e = shell->To<ENTITY>();
1710	710	const IfcConnectedFaceSet& fs = conv.db.MustGetObject(e).To<IfcConnectedFaceSet>();
1711	711
1712		ProcessConnectedFaceSet(fs,meshtmp,conv);
	712	ProcessConnectedFaceSet(fs,*meshtmp.get(),conv);
1713	713	}
1714	714	catch(std::bad_cast&) {
1715	715	IFCImporter::LogWarn("unexpected type error, IfcShell ought to inherit from IfcConnectedFaceSet");

1717	717	}
1718	718	}
1719	719	else if(const IfcConnectedFaceSet* fset = geo.ToPtr<IfcConnectedFaceSet>()) {
1720		ProcessConnectedFaceSet(*fset,meshtmp,conv);
	720	ProcessConnectedFaceSet(fset,meshtmp.get(),conv);
1721	721	}
1722	722	else if(const IfcSweptAreaSolid* swept = geo.ToPtr<IfcSweptAreaSolid>()) {
1723		ProcessSweptAreaSolid(*swept,meshtmp,conv);
	723	ProcessSweptAreaSolid(swept,meshtmp.get(),conv);
	724	}
	725	else if(const IfcSweptDiskSolid* disk = geo.ToPtr<IfcSweptDiskSolid>()) {
	726	ProcessSweptDiskSolid(disk,meshtmp.get(),conv);
	727	fix_orientation = false;
1724	728	}
1725	729	else if(const IfcManifoldSolidBrep* brep = geo.ToPtr<IfcManifoldSolidBrep>()) {
1726		ProcessConnectedFaceSet(brep->Outer,meshtmp,conv);
	730	ProcessConnectedFaceSet(brep->Outer,*meshtmp.get(),conv);
1727	731	}
1728	732	else if(const IfcFaceBasedSurfaceModel* surf = geo.ToPtr<IfcFaceBasedSurfaceModel>()) {
1729	733	BOOST_FOREACH(const IfcConnectedFaceSet& fc, surf->FbsmFaces) {
1730		ProcessConnectedFaceSet(fc,meshtmp,conv);
	734	ProcessConnectedFaceSet(fc,*meshtmp.get(),conv);
1731	735	}
1732	736	}
1733	737	else if(const IfcBooleanResult* boolean = geo.ToPtr<IfcBooleanResult>()) {
1734		ProcessBoolean(*boolean,meshtmp,conv);
	738	ProcessBoolean(boolean,meshtmp.get(),conv);
1735	739	}
1736	740	else if(geo.ToPtr<IfcBoundingBox>()) {
1737	741	// silently skip over bounding boxes

1742	746	return false;
1743	747	}
1744	748
1745		meshtmp.RemoveAdjacentDuplicates();
1746		FixupFaceOrientation(meshtmp);
1747
1748		aiMesh* const mesh = meshtmp.ToMesh();
	749	// Do we just collect openings for a parent element (i.e. a wall)?
	750	// In such a case, we generate the polygonal mesh as usual,
	751	// but attach it to a TempOpening instance which will later be applied
	752	// to the wall it pertains to.
	753
	754	// Note: swep area solids are added in ProcessExtrudedAreaSolid(),
	755	// which returns an empty mesh.
	756	if(conv.collect_openings) {
	757	if (!meshtmp->IsEmpty()) {
	758	conv.collect_openings->push_back(TempOpening(geo.ToPtr<IfcSolidModel>(),
	759	IfcVector3(0,0,0),
	760	meshtmp,
	761	boost::shared_ptr<TempMesh>()));
	762	}
	763	return true;
	764	}
	765
	766	if (meshtmp->IsEmpty()) {
	767	return false;
	768	}
	769
	770	meshtmp->RemoveAdjacentDuplicates();
	771	meshtmp->RemoveDegenerates();
	772
	773	if(fix_orientation) {
	774	meshtmp->FixupFaceOrientation();
	775	}
	776
	777	aiMesh* const mesh = meshtmp->ToMesh();
1749	778	if(mesh) {
1750	779	mesh->mMaterialIndex = ProcessMaterials(geo,conv);
1751	780	mesh_indices.push_back(conv.meshes.size());

1756	785	}
1757	786
1758	787	// ------------------------------------------------------------------------------------------------
1759		void AssignAddedMeshes(std::vector<unsigned int>& mesh_indices,aiNode* nd,ConversionData& /conv/)
	788	void AssignAddedMeshes(std::vector<unsigned int>& mesh_indices,aiNode* nd,
	789	ConversionData& /conv/)
1760	790	{
1761	791	if (!mesh_indices.empty()) {
1762	792

1775	805	}
1776	806
1777	807	// ------------------------------------------------------------------------------------------------
1778		bool TryQueryMeshCache(const IfcRepresentationItem& item, std::vector<unsigned int>& mesh_indices, ConversionData& conv)
	808	bool TryQueryMeshCache(const IfcRepresentationItem& item,
	809	std::vector<unsigned int>& mesh_indices,
	810	ConversionData& conv)
1779	811	{
1780	812	ConversionData::MeshCache::const_iterator it = conv.cached_meshes.find(&item);
1781	813	if (it != conv.cached_meshes.end()) {

1786	818	}
1787	819
1788	820	// ------------------------------------------------------------------------------------------------
1789		void PopulateMeshCache(const IfcRepresentationItem& item, const std::vector<unsigned int>& mesh_indices, ConversionData& conv)
	821	void PopulateMeshCache(const IfcRepresentationItem& item,
	822	const std::vector<unsigned int>& mesh_indices,
	823	ConversionData& conv)
1790	824	{
1791	825	conv.cached_meshes[&item] = mesh_indices;
1792	826	}
1793	827
1794	828	// ------------------------------------------------------------------------------------------------
1795		bool ProcessRepresentationItem(const IfcRepresentationItem& item, std::vector<unsigned int>& mesh_indices, ConversionData& conv)
	829	bool ProcessRepresentationItem(const IfcRepresentationItem& item,
	830	std::vector<unsigned int>& mesh_indices,
	831	ConversionData& conv)
1796	832	{
1797	833	if (!TryQueryMeshCache(item,mesh_indices,conv)) {
1798	834	if(ProcessGeometricItem(item,mesh_indices,conv)) {

1805	841	return true;
1806	842	}
1807	843
1808		#undef to_int64
1809		#undef from_int64
1810		#undef from_int64_f
1811	844
1812	845	} // ! IFC
1813	846	} // ! Assimp

+203

-17

code/IFCLoader.cpp less more

47	47	#include <iterator>
48	48	#include <boost/tuple/tuple.hpp>
49	49
	50	#ifndef ASSIMP_BUILD_NO_COMPRESSED_IFC
	51	# include "../contrib/unzip/unzip.h"
	52	#endif
50	53
51	54	#include "IFCLoader.h"
52	55	#include "STEPFileReader.h"

102	105	0,
103	106	0,
104	107	0,
105		"ifc"
	108	"ifc ifczip"
106	109	};
107	110
108	111

122	125	bool IFCImporter::CanRead( const std::string& pFile, IOSystem* pIOHandler, bool checkSig) const
123	126	{
124	127	const std::string& extension = GetExtension(pFile);
125		if (extension == "ifc") {
	128	if (extension == "ifc" \|\| extension == "ifczip") {
126	129	return true;
127	130	}
128	131

167	170	ThrowException("Could not open file for reading");
168	171	}
169	172
	173
	174	// if this is a ifczip file, decompress its contents first
	175	if(GetExtension(pFile) == "ifczip") {
	176	#ifndef ASSIMP_BUILD_NO_COMPRESSED_IFC
	177	unzFile zip = unzOpen( pFile.c_str() );
	178	if(zip == NULL) {
	179	ThrowException("Could not open ifczip file for reading, unzip failed");
	180	}
	181
	182	// chop 'zip' postfix
	183	std::string fileName = pFile.substr(0,pFile.length() - 3);
	184
	185	std::string::size_type s = pFile.find_last_of('\\');
	186	if(s == std::string::npos) {
	187	s = pFile.find_last_of('/');
	188	}
	189	if(s != std::string::npos) {
	190	fileName = fileName.substr(s+1);
	191	}
	192
	193	// search file (same name as the IFCZIP except for the file extension) and place file pointer there
	194	if(UNZ_OK == unzGoToFirstFile(zip)) {
	195	do {
	196	// get file size, etc.
	197	unz_file_info fileInfo;
	198	char filename[256];
	199	unzGetCurrentFileInfo( zip , &fileInfo, filename, sizeof(filename), 0, 0, 0, 0 );
	200	if (GetExtension(filename) != "ifc") {
	201	continue;
	202	}
	203	uint8_t* buff = new uint8_t[fileInfo.uncompressed_size];
	204	LogInfo("Decompressing IFCZIP file");
	205	unzOpenCurrentFile( zip );
	206	const int ret = unzReadCurrentFile( zip, buff, fileInfo.uncompressed_size);
	207	size_t filesize = fileInfo.uncompressed_size;
	208	if ( ret < 0 \|\| size_t(ret) != filesize )
	209	{
	210	delete[] buff;
	211	ThrowException("Failed to decompress IFC ZIP file");
	212	}
	213	unzCloseCurrentFile( zip );
	214	stream.reset(new MemoryIOStream(buff,fileInfo.uncompressed_size,true));
	215	break;
	216
	217	if (unzGoToNextFile(zip) == UNZ_END_OF_LIST_OF_FILE) {
	218	ThrowException("Found no IFC file member in IFCZIP file (1)");
	219	}
	220
	221	} while(true);
	222	}
	223	else {
	224	ThrowException("Found no IFC file member in IFCZIP file (2)");
	225	}
	226
	227	unzClose(zip);
	228	#else
	229	ThrowException("Could not open ifczip file for reading, assimp was built without ifczip support");
	230	#endif
	231	}
	232
170	233	boost::scoped_ptr<STEP::DB> db(STEP::ReadFileHeader(stream));
171	234	const STEP::HeaderInfo& head = static_cast<const STEP::DB&>(*db).GetHeader();
172	235

195	258
196	259	// tell the reader for which types we need to simulate STEPs reverse indices
197	260	static const char* const inverse_indices_to_track[] = {
198		"ifcrelcontainedinspatialstructure", "ifcrelaggregates", "ifcrelvoidselement", "ifcstyleditem"
	261	"ifcrelcontainedinspatialstructure", "ifcrelaggregates", "ifcrelvoidselement", "ifcreldefinesbyproperties", "ifcpropertyset", "ifcstyleditem"
199	262	};
200	263
201	264	// feed the IFC schema into the reader and pre-parse all lines
202	265	STEP::ReadFile(*db, schema, types_to_track, inverse_indices_to_track);
203
204	266	const STEP::LazyObject* proj = db->GetObject("ifcproject");
205	267	if (!proj) {
206	268	ThrowException("missing IfcProject entity");

216	278	// in a build with no entities disabled. See
217	279	// scripts/IFCImporter/CPPGenerator.py
218	280	// for more information.
219		#ifdef ASSIMP_IFC_TEST
220		db->EvaluateAll();
221		#endif
	281	#ifdef ASSIMP_IFC_TEST
	282	db->EvaluateAll();
	283	#endif
222	284
223	285	// do final data copying
224	286	if (conv.meshes.size()) {

457	519	return -3;
458	520	}
459	521
460		// give strong preference to extruded geometry
	522	// give strong preference to extruded geometry.
461	523	if (r == "SweptSolid") {
462	524	return -10;
463	525	}

494	556	if(!el.Representation) {
495	557	return;
496	558	}
497
498
499	559	std::vector<unsigned int> meshes;
500
501	560	// we want only one representation type, so bring them in a suitable order (i.e try those
502	561	// that look as if we could read them quickly at first). This way of reading
503	562	// representation is relatively generic and allows the concrete implementations
504	563	// for the different representation types to make some sensible choices what
505	564	// to load and what not to load.
506	565	const STEP::ListOf< STEP::Lazy< IfcRepresentation >, 1, 0 >& src = el.Representation.Get()->Representations;
507
508	566	std::vector<const IfcRepresentation*> repr_ordered(src.size());
509	567	std::copy(src.begin(),src.end(),repr_ordered.begin());
510	568	std::sort(repr_ordered.begin(),repr_ordered.end(),RateRepresentationPredicate());
511
512	569	BOOST_FOREACH(const IfcRepresentation* repr, repr_ordered) {
513	570	bool res = false;
514	571	BOOST_FOREACH(const IfcRepresentationItem& item, repr->Items) {

524	581	break;
525	582	}
526	583	}
527
528	584	AssignAddedMeshes(meshes,nd,conv);
	585	}
	586
	587	typedef std::map<std::string, std::string> Metadata;
	588
	589	// ------------------------------------------------------------------------------------------------
	590	void ProcessMetadata(const ListOf< Lazy< IfcProperty >, 1, 0 >& set, ConversionData& conv, Metadata& properties,
	591	const std::string& prefix = "",
	592	unsigned int nest = 0)
	593	{
	594	BOOST_FOREACH(const IfcProperty& property, set) {
	595	const std::string& key = prefix.length() > 0 ? (prefix + "." + property.Name) : property.Name;
	596	if (const IfcPropertySingleValue* const singleValue = property.ToPtr<IfcPropertySingleValue>()) {
	597	if (singleValue->NominalValue) {
	598	if (const EXPRESS::STRING* str = singleValue->NominalValue.Get()->ToPtr<EXPRESS::STRING>()) {
	599	std::string value = static_cast<std::string>(*str);
	600	properties[key]=value;
	601	}
	602	else if (const EXPRESS::REAL* val = singleValue->NominalValue.Get()->ToPtr<EXPRESS::REAL>()) {
	603	float value = static_cast<float>(*val);
	604	std::stringstream s;
	605	s << value;
	606	properties[key]=s.str();
	607	}
	608	else if (const EXPRESS::INTEGER* val = singleValue->NominalValue.Get()->ToPtr<EXPRESS::INTEGER>()) {
	609	int64_t value = static_cast<int64_t>(*val);
	610	std::stringstream s;
	611	s << value;
	612	properties[key]=s.str();
	613	}
	614	}
	615	}
	616	else if (const IfcPropertyListValue* const listValue = property.ToPtr<IfcPropertyListValue>()) {
	617	std::stringstream ss;
	618	ss << "[";
	619	unsigned index=0;
	620	BOOST_FOREACH(const IfcValue::Out& v, listValue->ListValues) {
	621	if (!v) continue;
	622	if (const EXPRESS::STRING* str = v->ToPtr<EXPRESS::STRING>()) {
	623	std::string value = static_cast<std::string>(*str);
	624	ss << "'" << value << "'";
	625	}
	626	else if (const EXPRESS::REAL* val = v->ToPtr<EXPRESS::REAL>()) {
	627	float value = static_cast<float>(*val);
	628	ss << value;
	629	}
	630	else if (const EXPRESS::INTEGER* val = v->ToPtr<EXPRESS::INTEGER>()) {
	631	int64_t value = static_cast<int64_t>(*val);
	632	ss << value;
	633	}
	634	if (index+1<listValue->ListValues.size()) {
	635	ss << ",";
	636	}
	637	index++;
	638	}
	639	ss << "]";
	640	properties[key]=ss.str();
	641	}
	642	else if (const IfcComplexProperty* const complexProp = property.ToPtr<IfcComplexProperty>()) {
	643	if(nest > 2) { // mostly arbitrary limit to prevent stack overflow vulnerabilities
	644	IFCImporter::LogError("maximum nesting level for IfcComplexProperty reached, skipping this property.");
	645	}
	646	else {
	647	ProcessMetadata(complexProp->HasProperties, conv, properties, key, nest + 1);
	648	}
	649	}
	650	else {
	651	properties[key]="";
	652	}
	653	}
	654	}
	655
	656
	657	// ------------------------------------------------------------------------------------------------
	658	void ProcessMetadata(uint64_t relDefinesByPropertiesID, ConversionData& conv, Metadata& properties)
	659	{
	660	if (const IfcRelDefinesByProperties* const pset = conv.db.GetObject(relDefinesByPropertiesID)->ToPtr<IfcRelDefinesByProperties>()) {
	661	if (const IfcPropertySet* const set = conv.db.GetObject(pset->RelatingPropertyDefinition->GetID())->ToPtr<IfcPropertySet>()) {
	662	ProcessMetadata(set->HasProperties, conv, properties);
	663	}
	664	}
529	665	}
530	666
531	667	// ------------------------------------------------------------------------------------------------

550	686
551	687	// add an output node for this spatial structure
552	688	std::auto_ptr<aiNode> nd(new aiNode());
553		nd->mName.Set(el.GetClassName()+"_"+(el.Name?el.Name:el.GlobalId));
	689	nd->mName.Set(el.GetClassName()+"_"+(el.Name?el.Name.Get():"Unnamed")+"_"+el.GlobalId);
554	690	nd->mParent = parent;
	691
	692	conv.already_processed.insert(el.GetID());
	693
	694	// check for node metadata
	695	STEP::DB::RefMapRange children = refs.equal_range(el.GetID());
	696	if (children.first!=refs.end()) {
	697	Metadata properties;
	698	if (children.first==children.second) {
	699	// handles single property set
	700	ProcessMetadata((*children.first).second, conv, properties);
	701	}
	702	else {
	703	// handles multiple property sets (currently all property sets are merged,
	704	// which may not be the best solution in the long run)
	705	for (STEP::DB::RefMap::const_iterator it=children.first; it!=children.second; ++it) {
	706	ProcessMetadata((*it).second, conv, properties);
	707	}
	708	}
	709
	710	if (!properties.empty()) {
	711	aiMetadata* data = new aiMetadata();
	712	data->mNumProperties = properties.size();
	713	data->mKeys = new aiString[data->mNumProperties]();
	714	data->mValues = new aiMetadataEntry[data->mNumProperties]();
	715
	716	unsigned int index = 0;
	717	BOOST_FOREACH(const Metadata::value_type& kv, properties)
	718	data->Set(index++, kv.first, aiString(kv.second));
	719
	720	nd->mMetaData = data;
	721	}
	722	}
555	723
556	724	if(el.ObjectPlacement) {
557	725	ResolveObjectPlacement(nd->mTransformation,el.ObjectPlacement.Get(),conv);

571	739	STEP::DB::RefMapRange range = refs.equal_range(el.GetID());
572	740
573	741	for(STEP::DB::RefMapRange range2 = range; range2.first != range.second; ++range2.first) {
	742	// skip over meshes that have already been processed before. This is strictly necessary
	743	// because the reverse indices also include references contained in argument lists and
	744	// therefore every element has a back-reference hold by its parent.
	745	if (conv.already_processed.find((*range2.first).second) != conv.already_processed.end()) {
	746	continue;
	747	}
574	748	const STEP::LazyObject& obj = conv.db.MustGetObject((*range2.first).second);
575	749
576	750	// handle regularly-contained elements
577	751	if(const IfcRelContainedInSpatialStructure* const cont = obj->ToPtr<IfcRelContainedInSpatialStructure>()) {
	752	if(cont->RelatingStructure->GetID() != el.GetID()) {
	753	continue;
	754	}
578	755	BOOST_FOREACH(const IfcProduct& pro, cont->RelatedElements) {
579	756	if(const IfcOpeningElement* const open = pro.ToPtr<IfcOpeningElement>()) {
580	757	// IfcOpeningElement is handled below. Sadly we can't use it here as is:
581		// The docs say that opening elements are USUALLY attached to building storeys
582		// but we want them for the building elements to which they belong to.
	758	// The docs say that opening elements are USUALLY attached to building storey,
	759	// but we want them for the building elements to which they belong.
583	760	continue;
584	761	}
585	762

630	807	}
631	808
632	809	for(;range.first != range.second; ++range.first) {
	810	// see note in loop above
	811	if (conv.already_processed.find((*range.first).second) != conv.already_processed.end()) {
	812	continue;
	813	}
633	814	if(const IfcRelAggregates* const aggr = conv.db.GetObject((*range.first).second)->ToPtr<IfcRelAggregates>()) {
	815	if(aggr->RelatingObject->GetID() != el.GetID()) {
	816	continue;
	817	}
634	818
635	819	// move aggregate elements to a separate node since they are semantically different than elements that are just 'contained'
636	820	std::auto_ptr<aiNode> nd_aggr(new aiNode());

676	860	throw;
677	861	}
678	862
	863	ai_assert(conv.already_processed.find(el.GetID()) != conv.already_processed.end());
	864	conv.already_processed.erase(conv.already_processed.find(el.GetID()));
679	865	return nd.release();
680	866	}
681	867

-2

code/IFCMaterial.cpp less more

122	122	}
123	123	}
124	124	}
125		}
	125	} /*
126	126	else if (const IFC::IfcSurfaceStyleWithTextures* tex = sel2->ResolveSelectPtr<IFC::IfcSurfaceStyleWithTextures>(conv.db)) {
127	127	// XXX
128		}
	128	} */
129	129	}
130	130
131	131	}

+1744

-0

code/IFCOpenings.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2010, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file IFCOpenings.cpp
	41	* @brief Implements a subset of Ifc CSG operations for pouring
	42	* holes for windows and doors into walls.
	43	*/
	44
	45	#include "AssimpPCH.h"
	46
	47	#ifndef ASSIMP_BUILD_NO_IFC_IMPORTER
	48	#include "IFCUtil.h"
	49	#include "PolyTools.h"
	50	#include "ProcessHelper.h"
	51
	52	#include "../contrib/poly2tri/poly2tri/poly2tri.h"
	53	#include "../contrib/clipper/clipper.hpp"
	54
	55	#include <iterator>
	56
	57	namespace Assimp {
	58	namespace IFC {
	59
	60	using ClipperLib::ulong64;
	61	// XXX use full -+ range ...
	62	const ClipperLib::long64 max_ulong64 = 1518500249; // clipper.cpp / hiRange var
	63
	64	//#define to_int64(p) (static_cast<ulong64>( std::max( 0., std::min( static_cast<IfcFloat>((p)), 1.) ) * max_ulong64 ))
	65	#define to_int64(p) (static_cast<ulong64>(static_cast<IfcFloat>((p) ) * max_ulong64 ))
	66	#define from_int64(p) (static_cast<IfcFloat>((p)) / max_ulong64)
	67	#define one_vec (IfcVector2(static_cast<IfcFloat>(1.0),static_cast<IfcFloat>(1.0)))
	68
	69
	70	// fallback method to generate wall openings
	71	bool TryAddOpenings_Poly2Tri(const std::vector<TempOpening>& openings,const std::vector<IfcVector3>& nors,
	72	TempMesh& curmesh);
	73
	74
	75	typedef std::pair< IfcVector2, IfcVector2 > BoundingBox;
	76	typedef std::map<IfcVector2,size_t,XYSorter> XYSortedField;
	77
	78
	79	// ------------------------------------------------------------------------------------------------
	80	void QuadrifyPart(const IfcVector2& pmin, const IfcVector2& pmax, XYSortedField& field,
	81	const std::vector< BoundingBox >& bbs,
	82	std::vector<IfcVector2>& out)
	83	{
	84	if (!(pmin.x-pmax.x) \|\| !(pmin.y-pmax.y)) {
	85	return;
	86	}
	87
	88	IfcFloat xs = 1e10, xe = 1e10;
	89	bool found = false;
	90
	91	// Search along the x-axis until we find an opening
	92	XYSortedField::iterator start = field.begin();
	93	for(; start != field.end(); ++start) {
	94	const BoundingBox& bb = bbs[(*start).second];
	95	if(bb.first.x >= pmax.x) {
	96	break;
	97	}
	98
	99	if (bb.second.x > pmin.x && bb.second.y > pmin.y && bb.first.y < pmax.y) {
	100	xs = bb.first.x;
	101	xe = bb.second.x;
	102	found = true;
	103	break;
	104	}
	105	}
	106
	107	if (!found) {
	108	// the rectangle [pmin,pend] is opaque, fill it
	109	out.push_back(pmin);
	110	out.push_back(IfcVector2(pmin.x,pmax.y));
	111	out.push_back(pmax);
	112	out.push_back(IfcVector2(pmax.x,pmin.y));
	113	return;
	114	}
	115
	116	xs = std::max(pmin.x,xs);
	117	xe = std::min(pmax.x,xe);
	118
	119	// see if there's an offset to fill at the top of our quad
	120	if (xs - pmin.x) {
	121	out.push_back(pmin);
	122	out.push_back(IfcVector2(pmin.x,pmax.y));
	123	out.push_back(IfcVector2(xs,pmax.y));
	124	out.push_back(IfcVector2(xs,pmin.y));
	125	}
	126
	127	// search along the y-axis for all openings that overlap xs and our quad
	128	IfcFloat ylast = pmin.y;
	129	found = false;
	130	for(; start != field.end(); ++start) {
	131	const BoundingBox& bb = bbs[(*start).second];
	132	if (bb.first.x > xs \|\| bb.first.y >= pmax.y) {
	133	break;
	134	}
	135
	136	if (bb.second.y > ylast) {
	137
	138	found = true;
	139	const IfcFloat ys = std::max(bb.first.y,pmin.y), ye = std::min(bb.second.y,pmax.y);
	140	if (ys - ylast > 0.0f) {
	141	QuadrifyPart( IfcVector2(xs,ylast), IfcVector2(xe,ys) ,field,bbs,out);
	142	}
	143
	144	// the following are the window vertices
	145
	146	/*wnd.push_back(IfcVector2(xs,ys));
	147	wnd.push_back(IfcVector2(xs,ye));
	148	wnd.push_back(IfcVector2(xe,ye));
	149	wnd.push_back(IfcVector2(xe,ys));*/
	150	ylast = ye;
	151	}
	152	}
	153	if (!found) {
	154	// the rectangle [pmin,pend] is opaque, fill it
	155	out.push_back(IfcVector2(xs,pmin.y));
	156	out.push_back(IfcVector2(xs,pmax.y));
	157	out.push_back(IfcVector2(xe,pmax.y));
	158	out.push_back(IfcVector2(xe,pmin.y));
	159	return;
	160	}
	161	if (ylast < pmax.y) {
	162	QuadrifyPart( IfcVector2(xs,ylast), IfcVector2(xe,pmax.y) ,field,bbs,out);
	163	}
	164
	165	// now for the whole rest
	166	if (pmax.x-xe) {
	167	QuadrifyPart(IfcVector2(xe,pmin.y), pmax ,field,bbs,out);
	168	}
	169	}
	170
	171	typedef std::vector<IfcVector2> Contour;
	172	typedef std::vector<bool> SkipList; // should probably use int for performance reasons
	173
	174	struct ProjectedWindowContour
	175	{
	176	Contour contour;
	177	BoundingBox bb;
	178	SkipList skiplist;
	179	bool is_rectangular;
	180
	181
	182	ProjectedWindowContour(const Contour& contour, const BoundingBox& bb, bool is_rectangular)
	183	: contour(contour)
	184	, bb(bb)
	185	, is_rectangular(is_rectangular)
	186	{}
	187
	188
	189	bool IsInvalid() const {
	190	return contour.empty();
	191	}
	192
	193	void FlagInvalid() {
	194	contour.clear();
	195	}
	196
	197	void PrepareSkiplist() {
	198	skiplist.resize(contour.size(),false);
	199	}
	200	};
	201
	202	typedef std::vector< ProjectedWindowContour > ContourVector;
	203
	204	// ------------------------------------------------------------------------------------------------
	205	bool BoundingBoxesOverlapping( const BoundingBox &ibb, const BoundingBox &bb )
	206	{
	207	// count the '=' case as non-overlapping but as adjacent to each other
	208	return ibb.first.x < bb.second.x && ibb.second.x > bb.first.x &&
	209	ibb.first.y < bb.second.y && ibb.second.y > bb.first.y;
	210	}
	211
	212	// ------------------------------------------------------------------------------------------------
	213	bool IsDuplicateVertex(const IfcVector2& vv, const std::vector<IfcVector2>& temp_contour)
	214	{
	215	// sanity check for duplicate vertices
	216	BOOST_FOREACH(const IfcVector2& cp, temp_contour) {
	217	if ((cp-vv).SquareLength() < 1e-5f) {
	218	return true;
	219	}
	220	}
	221	return false;
	222	}
	223
	224	// ------------------------------------------------------------------------------------------------
	225	void ExtractVerticesFromClipper(const ClipperLib::Polygon& poly, std::vector<IfcVector2>& temp_contour,
	226	bool filter_duplicates = false)
	227	{
	228	temp_contour.clear();
	229	BOOST_FOREACH(const ClipperLib::IntPoint& point, poly) {
	230	IfcVector2 vv = IfcVector2( from_int64(point.X), from_int64(point.Y));
	231	vv = std::max(vv,IfcVector2());
	232	vv = std::min(vv,one_vec);
	233
	234	if (!filter_duplicates \|\| !IsDuplicateVertex(vv, temp_contour)) {
	235	temp_contour.push_back(vv);
	236	}
	237	}
	238	}
	239
	240	// ------------------------------------------------------------------------------------------------
	241	BoundingBox GetBoundingBox(const ClipperLib::Polygon& poly)
	242	{
	243	IfcVector2 newbb_min, newbb_max;
	244	MinMaxChooser<IfcVector2>()(newbb_min, newbb_max);
	245
	246	BOOST_FOREACH(const ClipperLib::IntPoint& point, poly) {
	247	IfcVector2 vv = IfcVector2( from_int64(point.X), from_int64(point.Y));
	248
	249	// sanity rounding
	250	vv = std::max(vv,IfcVector2());
	251	vv = std::min(vv,one_vec);
	252
	253	newbb_min = std::min(newbb_min,vv);
	254	newbb_max = std::max(newbb_max,vv);
	255	}
	256	return BoundingBox(newbb_min, newbb_max);
	257	}
	258
	259	// ------------------------------------------------------------------------------------------------
	260	void InsertWindowContours(const ContourVector& contours,
	261	const std::vector<TempOpening>& openings,
	262	TempMesh& curmesh)
	263	{
	264	// fix windows - we need to insert the real, polygonal shapes into the quadratic holes that we have now
	265	for(size_t i = 0; i < contours.size();++i) {
	266	const BoundingBox& bb = contours[i].bb;
	267	const std::vector<IfcVector2>& contour = contours[i].contour;
	268	if(contour.empty()) {
	269	continue;
	270	}
	271
	272	// check if we need to do it at all - many windows just fit perfectly into their quadratic holes,
	273	// i.e. their contours are already their bounding boxes.
	274	if (contour.size() == 4) {
	275	std::set<IfcVector2,XYSorter> verts;
	276	for(size_t n = 0; n < 4; ++n) {
	277	verts.insert(contour[n]);
	278	}
	279	const std::set<IfcVector2,XYSorter>::const_iterator end = verts.end();
	280	if (verts.find(bb.first)!=end && verts.find(bb.second)!=end
	281	&& verts.find(IfcVector2(bb.first.x,bb.second.y))!=end
	282	&& verts.find(IfcVector2(bb.second.x,bb.first.y))!=end
	283	) {
	284	continue;
	285	}
	286	}
	287
	288	const IfcFloat diag = (bb.first-bb.second).Length();
	289	const IfcFloat epsilon = diag/1000.f;
	290
	291	// walk through all contour points and find those that lie on the BB corner
	292	size_t last_hit = -1, very_first_hit = -1;
	293	IfcVector2 edge;
	294	for(size_t n = 0, e=0, size = contour.size();; n=(n+1)%size, ++e) {
	295
	296	// sanity checking
	297	if (e == size*2) {
	298	IFCImporter::LogError("encountered unexpected topology while generating window contour");
	299	break;
	300	}
	301
	302	const IfcVector2& v = contour[n];
	303
	304	bool hit = false;
	305	if (fabs(v.x-bb.first.x)<epsilon) {
	306	edge.x = bb.first.x;
	307	hit = true;
	308	}
	309	else if (fabs(v.x-bb.second.x)<epsilon) {
	310	edge.x = bb.second.x;
	311	hit = true;
	312	}
	313
	314	if (fabs(v.y-bb.first.y)<epsilon) {
	315	edge.y = bb.first.y;
	316	hit = true;
	317	}
	318	else if (fabs(v.y-bb.second.y)<epsilon) {
	319	edge.y = bb.second.y;
	320	hit = true;
	321	}
	322
	323	if (hit) {
	324	if (last_hit != (size_t)-1) {
	325
	326	const size_t old = curmesh.verts.size();
	327	size_t cnt = last_hit > n ? size-(last_hit-n) : n-last_hit;
	328	for(size_t a = last_hit, e = 0; e <= cnt; a=(a+1)%size, ++e) {
	329	// hack: this is to fix cases where opening contours are self-intersecting.
	330	// Clipper doesn't produce such polygons, but as soon as we're back in
	331	// our brave new floating-point world, very small distances are consumed
	332	// by the maximum available precision, leading to self-intersecting
	333	// polygons. This fix makes concave windows fail even worse, but
	334	// anyway, fail is fail.
	335	if ((contour[a] - edge).SquareLength() > diagdiag0.7) {
	336	continue;
	337	}
	338	curmesh.verts.push_back(IfcVector3(contour[a].x, contour[a].y, 0.0f));
	339	}
	340
	341	if (edge != contour[last_hit]) {
	342
	343	IfcVector2 corner = edge;
	344
	345	if (fabs(contour[last_hit].x-bb.first.x)<epsilon) {
	346	corner.x = bb.first.x;
	347	}
	348	else if (fabs(contour[last_hit].x-bb.second.x)<epsilon) {
	349	corner.x = bb.second.x;
	350	}
	351
	352	if (fabs(contour[last_hit].y-bb.first.y)<epsilon) {
	353	corner.y = bb.first.y;
	354	}
	355	else if (fabs(contour[last_hit].y-bb.second.y)<epsilon) {
	356	corner.y = bb.second.y;
	357	}
	358
	359	curmesh.verts.push_back(IfcVector3(corner.x, corner.y, 0.0f));
	360	}
	361	else if (cnt == 1) {
	362	// avoid degenerate polygons (also known as lines or points)
	363	curmesh.verts.erase(curmesh.verts.begin()+old,curmesh.verts.end());
	364	}
	365
	366	if (const size_t d = curmesh.verts.size()-old) {
	367	curmesh.vertcnt.push_back(d);
	368	std::reverse(curmesh.verts.rbegin(),curmesh.verts.rbegin()+d);
	369	}
	370	if (n == very_first_hit) {
	371	break;
	372	}
	373	}
	374	else {
	375	very_first_hit = n;
	376	}
	377
	378	last_hit = n;
	379	}
	380	}
	381	}
	382	}
	383
	384	// ------------------------------------------------------------------------------------------------
	385	void MergeWindowContours (const std::vector<IfcVector2>& a,
	386	const std::vector<IfcVector2>& b,
	387	ClipperLib::ExPolygons& out)
	388	{
	389	out.clear();
	390
	391	ClipperLib::Clipper clipper;
	392	ClipperLib::Polygon clip;
	393
	394	BOOST_FOREACH(const IfcVector2& pip, a) {
	395	clip.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
	396	}
	397
	398	if (ClipperLib::Orientation(clip)) {
	399	std::reverse(clip.begin(), clip.end());
	400	}
	401
	402	clipper.AddPolygon(clip, ClipperLib::ptSubject);
	403	clip.clear();
	404
	405	BOOST_FOREACH(const IfcVector2& pip, b) {
	406	clip.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
	407	}
	408
	409	if (ClipperLib::Orientation(clip)) {
	410	std::reverse(clip.begin(), clip.end());
	411	}
	412
	413	clipper.AddPolygon(clip, ClipperLib::ptSubject);
	414	clipper.Execute(ClipperLib::ctUnion, out,ClipperLib::pftNonZero,ClipperLib::pftNonZero);
	415	}
	416
	417	// ------------------------------------------------------------------------------------------------
	418	// Subtract a from b
	419	void MakeDisjunctWindowContours (const std::vector<IfcVector2>& a,
	420	const std::vector<IfcVector2>& b,
	421	ClipperLib::ExPolygons& out)
	422	{
	423	out.clear();
	424
	425	ClipperLib::Clipper clipper;
	426	ClipperLib::Polygon clip;
	427
	428	BOOST_FOREACH(const IfcVector2& pip, a) {
	429	clip.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
	430	}
	431
	432	if (ClipperLib::Orientation(clip)) {
	433	std::reverse(clip.begin(), clip.end());
	434	}
	435
	436	clipper.AddPolygon(clip, ClipperLib::ptClip);
	437	clip.clear();
	438
	439	BOOST_FOREACH(const IfcVector2& pip, b) {
	440	clip.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
	441	}
	442
	443	if (ClipperLib::Orientation(clip)) {
	444	std::reverse(clip.begin(), clip.end());
	445	}
	446
	447	clipper.AddPolygon(clip, ClipperLib::ptSubject);
	448	clipper.Execute(ClipperLib::ctDifference, out,ClipperLib::pftNonZero,ClipperLib::pftNonZero);
	449	}
	450
	451	// ------------------------------------------------------------------------------------------------
	452	void CleanupWindowContour(ProjectedWindowContour& window)
	453	{
	454	std::vector<IfcVector2> scratch;
	455	std::vector<IfcVector2>& contour = window.contour;
	456
	457	ClipperLib::Polygon subject;
	458	ClipperLib::Clipper clipper;
	459	ClipperLib::ExPolygons clipped;
	460
	461	BOOST_FOREACH(const IfcVector2& pip, contour) {
	462	subject.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
	463	}
	464
	465	clipper.AddPolygon(subject,ClipperLib::ptSubject);
	466	clipper.Execute(ClipperLib::ctUnion,clipped,ClipperLib::pftNonZero,ClipperLib::pftNonZero);
	467
	468	// This should yield only one polygon or something went wrong
	469	if (clipped.size() != 1) {
	470
	471	// Empty polygon? drop the contour altogether
	472	if(clipped.empty()) {
	473	IFCImporter::LogError("error during polygon clipping, window contour is degenerate");
	474	window.FlagInvalid();
	475	return;
	476	}
	477
	478	// Else: take the first only
	479	IFCImporter::LogError("error during polygon clipping, window contour is not convex");
	480	}
	481
	482	ExtractVerticesFromClipper(clipped[0].outer, scratch);
	483	// Assume the bounding box doesn't change during this operation
	484	}
	485
	486	// ------------------------------------------------------------------------------------------------
	487	void CleanupWindowContours(ContourVector& contours)
	488	{
	489	// Use PolyClipper to clean up window contours
	490	try {
	491	BOOST_FOREACH(ProjectedWindowContour& window, contours) {
	492	CleanupWindowContour(window);
	493	}
	494	}
	495	catch (const char* sx) {
	496	IFCImporter::LogError("error during polygon clipping, window shape may be wrong: (Clipper: "
	497	+ std::string(sx) + ")");
	498	}
	499	}
	500
	501	// ------------------------------------------------------------------------------------------------
	502	void CleanupOuterContour(const std::vector<IfcVector2>& contour_flat, TempMesh& curmesh)
	503	{
	504	std::vector<IfcVector3> vold;
	505	std::vector<unsigned int> iold;
	506
	507	vold.reserve(curmesh.verts.size());
	508	iold.reserve(curmesh.vertcnt.size());
	509
	510	// Fix the outer contour using polyclipper
	511	try {
	512
	513	ClipperLib::Polygon subject;
	514	ClipperLib::Clipper clipper;
	515	ClipperLib::ExPolygons clipped;
	516
	517	ClipperLib::Polygon clip;
	518	clip.reserve(contour_flat.size());
	519	BOOST_FOREACH(const IfcVector2& pip, contour_flat) {
	520	clip.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
	521	}
	522
	523	if (!ClipperLib::Orientation(clip)) {
	524	std::reverse(clip.begin(), clip.end());
	525	}
	526
	527	// We need to run polyclipper on every single polygon -- we can't run it one all
	528	// of them at once or it would merge them all together which would undo all
	529	// previous steps
	530	subject.reserve(4);
	531	size_t index = 0;
	532	size_t countdown = 0;
	533	BOOST_FOREACH(const IfcVector3& pip, curmesh.verts) {
	534	if (!countdown) {
	535	countdown = curmesh.vertcnt[index++];
	536	if (!countdown) {
	537	continue;
	538	}
	539	}
	540	subject.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
	541	if (--countdown == 0) {
	542	if (!ClipperLib::Orientation(subject)) {
	543	std::reverse(subject.begin(), subject.end());
	544	}
	545
	546	clipper.AddPolygon(subject,ClipperLib::ptSubject);
	547	clipper.AddPolygon(clip,ClipperLib::ptClip);
	548
	549	clipper.Execute(ClipperLib::ctIntersection,clipped,ClipperLib::pftNonZero,ClipperLib::pftNonZero);
	550
	551	BOOST_FOREACH(const ClipperLib::ExPolygon& ex, clipped) {
	552	iold.push_back(ex.outer.size());
	553	BOOST_FOREACH(const ClipperLib::IntPoint& point, ex.outer) {
	554	vold.push_back(IfcVector3(
	555	from_int64(point.X),
	556	from_int64(point.Y),
	557	0.0f));
	558	}
	559	}
	560
	561	subject.clear();
	562	clipped.clear();
	563	clipper.Clear();
	564	}
	565	}
	566	}
	567	catch (const char* sx) {
	568	IFCImporter::LogError("Ifc: error during polygon clipping, wall contour line may be wrong: (Clipper: "
	569	+ std::string(sx) + ")");
	570
	571	return;
	572	}
	573
	574	// swap data arrays
	575	std::swap(vold,curmesh.verts);
	576	std::swap(iold,curmesh.vertcnt);
	577	}
	578
	579	typedef std::vector<TempOpening*> OpeningRefs;
	580	typedef std::vector<OpeningRefs > OpeningRefVector;
	581
	582	typedef std::vector<std::pair<
	583	ContourVector::const_iterator,
	584	Contour::const_iterator>
	585	> ContourRefVector;
	586
	587	// ------------------------------------------------------------------------------------------------
	588	bool BoundingBoxesAdjacent(const BoundingBox& bb, const BoundingBox& ibb)
	589	{
	590	// TODO: I'm pretty sure there is a much more compact way to check this
	591	const IfcFloat epsilon = 1e-5f;
	592	return (fabs(bb.second.x - ibb.first.x) < epsilon && bb.first.y <= ibb.second.y && bb.second.y >= ibb.first.y) \|\|
	593	(fabs(bb.first.x - ibb.second.x) < epsilon && ibb.first.y <= bb.second.y && ibb.second.y >= bb.first.y) \|\|
	594	(fabs(bb.second.y - ibb.first.y) < epsilon && bb.first.x <= ibb.second.x && bb.second.x >= ibb.first.x) \|\|
	595	(fabs(bb.first.y - ibb.second.y) < epsilon && ibb.first.x <= bb.second.x && ibb.second.x >= bb.first.x);
	596	}
	597
	598	// ------------------------------------------------------------------------------------------------
	599	// Check if m0,m1 intersects n0,n1 assuming same ordering of the points in the line segments
	600	// output the intersection points on n0,n1
	601	bool IntersectingLineSegments(const IfcVector2& n0, const IfcVector2& n1,
	602	const IfcVector2& m0, const IfcVector2& m1,
	603	IfcVector2& out0, IfcVector2& out1)
	604	{
	605	const IfcVector2& n0_to_n1 = n1 - n0;
	606
	607	const IfcVector2& n0_to_m0 = m0 - n0;
	608	const IfcVector2& n1_to_m1 = m1 - n1;
	609
	610	const IfcVector2& n0_to_m1 = m1 - n0;
	611
	612	const IfcFloat e = 1e-5f;
	613	const IfcFloat smalle = 1e-9f;
	614
	615	static const IfcFloat inf = std::numeric_limits<IfcFloat>::infinity();
	616
	617	if (!(n0_to_m0.SquareLength() < ee \|\| fabs(n0_to_m0 n0_to_n1) / (n0_to_m0.Length() * n0_to_n1.Length()) > 1-1e-5 )) {
	618	return false;
	619	}
	620
	621	if (!(n1_to_m1.SquareLength() < ee \|\| fabs(n1_to_m1 n0_to_n1) / (n1_to_m1.Length() * n0_to_n1.Length()) > 1-1e-5 )) {
	622	return false;
	623	}
	624
	625	IfcFloat s0;
	626	IfcFloat s1;
	627
	628	// pick the axis with the higher absolute difference so the result
	629	// is more accurate. Since we cannot guarantee that the axis with
	630	// the higher absolute difference is big enough as to avoid
	631	// divisions by zero, the case 0/0 ~ infinity is detected and
	632	// handled separately.
	633	if(fabs(n0_to_n1.x) > fabs(n0_to_n1.y)) {
	634	s0 = n0_to_m0.x / n0_to_n1.x;
	635	s1 = n0_to_m1.x / n0_to_n1.x;
	636
	637	if (fabs(s0) == inf && fabs(n0_to_m0.x) < smalle) {
	638	s0 = 0.;
	639	}
	640	if (fabs(s1) == inf && fabs(n0_to_m1.x) < smalle) {
	641	s1 = 0.;
	642	}
	643	}
	644	else {
	645	s0 = n0_to_m0.y / n0_to_n1.y;
	646	s1 = n0_to_m1.y / n0_to_n1.y;
	647
	648	if (fabs(s0) == inf && fabs(n0_to_m0.y) < smalle) {
	649	s0 = 0.;
	650	}
	651	if (fabs(s1) == inf && fabs(n0_to_m1.y) < smalle) {
	652	s1 = 0.;
	653	}
	654	}
	655
	656	if (s1 < s0) {
	657	std::swap(s1,s0);
	658	}
	659
	660	s0 = std::max(0.0,s0);
	661	s1 = std::max(0.0,s1);
	662
	663	s0 = std::min(1.0,s0);
	664	s1 = std::min(1.0,s1);
	665
	666	if (fabs(s1-s0) < e) {
	667	return false;
	668	}
	669
	670	out0 = n0 + s0 * n0_to_n1;
	671	out1 = n0 + s1 * n0_to_n1;
	672
	673	return true;
	674	}
	675
	676	// ------------------------------------------------------------------------------------------------
	677	void FindAdjacentContours(ContourVector::iterator current, const ContourVector& contours)
	678	{
	679	const IfcFloat sqlen_epsilon = static_cast<IfcFloat>(1e-8);
	680	const BoundingBox& bb = (*current).bb;
	681
	682	// What is to be done here is to populate the skip lists for the contour
	683	// and to add necessary padding points when needed.
	684	SkipList& skiplist = (*current).skiplist;
	685
	686	// First step to find possible adjacent contours is to check for adjacent bounding
	687	// boxes. If the bounding boxes are not adjacent, the contours lines cannot possibly be.
	688	for (ContourVector::const_iterator it = contours.begin(), end = contours.end(); it != end; ++it) {
	689	if ((*it).IsInvalid()) {
	690	continue;
	691	}
	692
	693	// this left here to make clear we also run on the current contour
	694	// to check for overlapping contour segments (which can happen due
	695	// to projection artifacts).
	696	//if(it == current) {
	697	// continue;
	698	//}
	699
	700	const bool is_me = it == current;
	701
	702	const BoundingBox& ibb = (*it).bb;
	703
	704	// Assumption: the bounding boxes are pairwise disjoint or identical
	705	ai_assert(is_me \|\| !BoundingBoxesOverlapping(bb, ibb));
	706
	707	if (is_me \|\| BoundingBoxesAdjacent(bb, ibb)) {
	708
	709	// Now do a each-against-everyone check for intersecting contour
	710	// lines. This obviously scales terribly, but in typical real
	711	// world Ifc files it will not matter since most windows that
	712	// are adjacent to each others are rectangular anyway.
	713
	714	Contour& ncontour = (*current).contour;
	715	const Contour& mcontour = (*it).contour;
	716
	717	for (size_t n = 0; n < ncontour.size(); ++n) {
	718	const IfcVector2& n0 = ncontour[n];
	719	const IfcVector2& n1 = ncontour[(n+1) % ncontour.size()];
	720
	721	for (size_t m = 0, mend = (is_me ? n : mcontour.size()); m < mend; ++m) {
	722	ai_assert(&mcontour != &ncontour \|\| m < n);
	723
	724	const IfcVector2& m0 = mcontour[m];
	725	const IfcVector2& m1 = mcontour[(m+1) % mcontour.size()];
	726
	727	IfcVector2 isect0, isect1;
	728	if (IntersectingLineSegments(n0,n1, m0, m1, isect0, isect1)) {
	729
	730	if ((isect0 - n0).SquareLength() > sqlen_epsilon) {
	731	++n;
	732
	733	ncontour.insert(ncontour.begin() + n, isect0);
	734	skiplist.insert(skiplist.begin() + n, true);
	735	}
	736	else {
	737	skiplist[n] = true;
	738	}
	739
	740	if ((isect1 - n1).SquareLength() > sqlen_epsilon) {
	741	++n;
	742
	743	ncontour.insert(ncontour.begin() + n, isect1);
	744	skiplist.insert(skiplist.begin() + n, false);
	745	}
	746	}
	747	}
	748	}
	749	}
	750	}
	751	}
	752
	753	// ------------------------------------------------------------------------------------------------
	754	AI_FORCE_INLINE bool LikelyBorder(const IfcVector2& vdelta)
	755	{
	756	const IfcFloat dot_point_epsilon = static_cast<IfcFloat>(1e-5);
	757	return fabs(vdelta.x * vdelta.y) < dot_point_epsilon;
	758	}
	759
	760	// ------------------------------------------------------------------------------------------------
	761	void FindBorderContours(ContourVector::iterator current)
	762	{
	763	const IfcFloat border_epsilon_upper = static_cast<IfcFloat>(1-1e-4);
	764	const IfcFloat border_epsilon_lower = static_cast<IfcFloat>(1e-4);
	765
	766	bool outer_border = false;
	767	bool start_on_outer_border = false;
	768
	769	SkipList& skiplist = (*current).skiplist;
	770	IfcVector2 last_proj_point;
	771
	772	const Contour::const_iterator cbegin = (current).contour.begin(), cend = (current).contour.end();
	773
	774	for (Contour::const_iterator cit = cbegin; cit != cend; ++cit) {
	775	const IfcVector2& proj_point = *cit;
	776
	777	// Check if this connection is along the outer boundary of the projection
	778	// plane. In such a case we better drop it because such 'edges' should
	779	// not have any geometry to close them (think of door openings).
	780	if (proj_point.x <= border_epsilon_lower \|\| proj_point.x >= border_epsilon_upper \|\|
	781	proj_point.y <= border_epsilon_lower \|\| proj_point.y >= border_epsilon_upper) {
	782
	783	if (outer_border) {
	784	ai_assert(cit != cbegin);
	785	if (LikelyBorder(proj_point - last_proj_point)) {
	786	skiplist[std::distance(cbegin, cit) - 1] = true;
	787	}
	788	}
	789	else if (cit == cbegin) {
	790	start_on_outer_border = true;
	791	}
	792
	793	outer_border = true;
	794	}
	795	else {
	796	outer_border = false;
	797	}
	798
	799	last_proj_point = proj_point;
	800	}
	801
	802	// handle last segment
	803	if (outer_border && start_on_outer_border) {
	804	const IfcVector2& proj_point = *cbegin;
	805	if (LikelyBorder(proj_point - last_proj_point)) {
	806	skiplist[skiplist.size()-1] = true;
	807	}
	808	}
	809	}
	810
	811	// ------------------------------------------------------------------------------------------------
	812	AI_FORCE_INLINE bool LikelyDiagonal(IfcVector2 vdelta)
	813	{
	814	vdelta.x = fabs(vdelta.x);
	815	vdelta.y = fabs(vdelta.y);
	816	return (fabs(vdelta.x-vdelta.y) < 0.8 * std::max(vdelta.x, vdelta.y));
	817	}
	818
	819	// ------------------------------------------------------------------------------------------------
	820	void FindLikelyCrossingLines(ContourVector::iterator current)
	821	{
	822	SkipList& skiplist = (*current).skiplist;
	823	IfcVector2 last_proj_point;
	824
	825	const Contour::const_iterator cbegin = (current).contour.begin(), cend = (current).contour.end();
	826	for (Contour::const_iterator cit = cbegin; cit != cend; ++cit) {
	827	const IfcVector2& proj_point = *cit;
	828
	829	if (cit != cbegin) {
	830	IfcVector2 vdelta = proj_point - last_proj_point;
	831	if (LikelyDiagonal(vdelta)) {
	832	skiplist[std::distance(cbegin, cit) - 1] = true;
	833	}
	834	}
	835
	836	last_proj_point = proj_point;
	837	}
	838
	839	// handle last segment
	840	if (LikelyDiagonal(*cbegin - last_proj_point)) {
	841	skiplist[skiplist.size()-1] = true;
	842	}
	843	}
	844
	845	// ------------------------------------------------------------------------------------------------
	846	size_t CloseWindows(ContourVector& contours,
	847	const IfcMatrix4& minv,
	848	OpeningRefVector& contours_to_openings,
	849	TempMesh& curmesh)
	850	{
	851	size_t closed = 0;
	852	// For all contour points, check if one of the assigned openings does
	853	// already have points assigned to it. In this case, assume this is
	854	// the other side of the wall and generate connections between
	855	// the two holes in order to close the window.
	856
	857	// All this gets complicated by the fact that contours may pertain to
	858	// multiple openings(due to merging of adjacent or overlapping openings).
	859	// The code is based on the assumption that this happens symmetrically
	860	// on both sides of the wall. If it doesn't (which would be a bug anyway)
	861	// wrong geometry may be generated.
	862	for (ContourVector::iterator it = contours.begin(), end = contours.end(); it != end; ++it) {
	863	if ((*it).IsInvalid()) {
	864	continue;
	865	}
	866	OpeningRefs& refs = contours_to_openings[std::distance(contours.begin(), it)];
	867
	868	bool has_other_side = false;
	869	BOOST_FOREACH(const TempOpening* opening, refs) {
	870	if(!opening->wallPoints.empty()) {
	871	has_other_side = true;
	872	break;
	873	}
	874	}
	875
	876	if (has_other_side) {
	877
	878	ContourRefVector adjacent_contours;
	879
	880	// prepare a skiplist for this contour. The skiplist is used to
	881	// eliminate unwanted contour lines for adjacent windows and
	882	// those bordering the outer frame.
	883	(*it).PrepareSkiplist();
	884
	885	FindAdjacentContours(it, contours);
	886	FindBorderContours(it);
	887
	888	// if the window is the result of a finite union or intersection of rectangles,
	889	// there shouldn't be any crossing or diagonal lines in it. Such lines would
	890	// be artifacts caused by numerical inaccuracies or other bugs in polyclipper
	891	// and our own code. Since rectangular openings are by far the most frequent
	892	// case, it is worth filtering for this corner case.
	893	if((*it).is_rectangular) {
	894	FindLikelyCrossingLines(it);
	895	}
	896
	897	ai_assert((it).skiplist.size() == (it).contour.size());
	898
	899	SkipList::const_iterator skipbegin = (*it).skiplist.begin();
	900
	901	curmesh.verts.reserve(curmesh.verts.size() + (it).contour.size() 4);
	902	curmesh.vertcnt.reserve(curmesh.vertcnt.size() + (*it).contour.size());
	903
	904	// XXX this algorithm is really a bit inefficient - both in terms
	905	// of constant factor and of asymptotic runtime.
	906	std::vector<bool>::const_iterator skipit = skipbegin;
	907
	908	IfcVector3 start0;
	909	IfcVector3 start1;
	910
	911	IfcVector2 last_proj;
	912	//const IfcVector2& first_proj;
	913
	914	const Contour::const_iterator cbegin = (it).contour.begin(), cend = (it).contour.end();
	915
	916	bool drop_this_edge = false;
	917	for (Contour::const_iterator cit = cbegin; cit != cend; ++cit, drop_this_edge = *skipit++) {
	918	const IfcVector2& proj_point = *cit;
	919
	920	// Locate the closest opposite point. This should be a good heuristic to
	921	// connect only the points that are really intended to be connected.
	922	IfcFloat best = static_cast<IfcFloat>(1e10);
	923	IfcVector3 bestv;
	924
	925	/* debug code to check for unwanted diagonal lines in window contours
	926	if (cit != cbegin) {
	927	const IfcVector2& vdelta = proj_point - last_proj;
	928	if (fabs(vdelta.x-vdelta.y) < 0.5 * std::max(vdelta.x, vdelta.y)) {
	929	//continue;
	930	}
	931	} */
	932
	933	const IfcVector3& world_point = minv * IfcVector3(proj_point.x,proj_point.y,0.0f);
	934
	935	last_proj = proj_point;
	936
	937	BOOST_FOREACH(const TempOpening* opening, refs) {
	938	BOOST_FOREACH(const IfcVector3& other, opening->wallPoints) {
	939	const IfcFloat sqdist = (world_point - other).SquareLength();
	940
	941	if (sqdist < best) {
	942	// avoid self-connections
	943	if(sqdist < 1e-5) {
	944	continue;
	945	}
	946
	947	bestv = other;
	948	best = sqdist;
	949	}
	950	}
	951	}
	952
	953	if (drop_this_edge) {
	954	curmesh.verts.pop_back();
	955	curmesh.verts.pop_back();
	956	}
	957	else {
	958	curmesh.verts.push_back(cit == cbegin ? world_point : bestv);
	959	curmesh.verts.push_back(cit == cbegin ? bestv : world_point);
	960
	961	curmesh.vertcnt.push_back(4);
	962	++closed;
	963	}
	964
	965	if (cit == cbegin) {
	966	start0 = world_point;
	967	start1 = bestv;
	968	continue;
	969	}
	970
	971	curmesh.verts.push_back(world_point);
	972	curmesh.verts.push_back(bestv);
	973
	974	if (cit == cend - 1) {
	975	drop_this_edge = *skipit;
	976
	977	// Check if the final connection (last to first element) is itself
	978	// a border edge that needs to be dropped.
	979	if (drop_this_edge) {
	980	--closed;
	981	curmesh.vertcnt.pop_back();
	982	curmesh.verts.pop_back();
	983	curmesh.verts.pop_back();
	984	}
	985	else {
	986	curmesh.verts.push_back(start1);
	987	curmesh.verts.push_back(start0);
	988	}
	989	}
	990	}
	991	/*
	992	BOOST_FOREACH(TempOpening* opening, refs) {
	993	//opening->wallPoints.clear();
	994	}*/
	995
	996	}
	997	else {
	998
	999	const Contour::const_iterator cbegin = (it).contour.begin(), cend = (it).contour.end();
	1000	BOOST_FOREACH(TempOpening* opening, refs) {
	1001	ai_assert(opening->wallPoints.empty());
	1002	opening->wallPoints.reserve(opening->wallPoints.capacity() + (*it).contour.size());
	1003	for (Contour::const_iterator cit = cbegin; cit != cend; ++cit) {
	1004
	1005	const IfcVector2& proj_point = *cit;
	1006	opening->wallPoints.push_back(minv * IfcVector3(proj_point.x,proj_point.y,0.0f));
	1007	}
	1008	}
	1009	}
	1010	}
	1011	return closed;
	1012	}
	1013
	1014	// ------------------------------------------------------------------------------------------------
	1015	void Quadrify(const std::vector< BoundingBox >& bbs, TempMesh& curmesh)
	1016	{
	1017	ai_assert(curmesh.IsEmpty());
	1018
	1019	std::vector<IfcVector2> quads;
	1020	quads.reserve(bbs.size()*4);
	1021
	1022	// sort openings by x and y axis as a preliminiary to the QuadrifyPart() algorithm
	1023	XYSortedField field;
	1024	for (std::vector<BoundingBox>::const_iterator it = bbs.begin(); it != bbs.end(); ++it) {
	1025	if (field.find((*it).first) != field.end()) {
	1026	IFCImporter::LogWarn("constraint failure during generation of wall openings, results may be faulty");
	1027	}
	1028	field[(*it).first] = std::distance(bbs.begin(),it);
	1029	}
	1030
	1031	QuadrifyPart(IfcVector2(),one_vec,field,bbs,quads);
	1032	ai_assert(!(quads.size() % 4));
	1033
	1034	curmesh.vertcnt.resize(quads.size()/4,4);
	1035	curmesh.verts.reserve(quads.size());
	1036	BOOST_FOREACH(const IfcVector2& v2, quads) {
	1037	curmesh.verts.push_back(IfcVector3(v2.x, v2.y, static_cast<IfcFloat>(0.0)));
	1038	}
	1039	}
	1040
	1041	// ------------------------------------------------------------------------------------------------
	1042	void Quadrify(const ContourVector& contours, TempMesh& curmesh)
	1043	{
	1044	std::vector<BoundingBox> bbs;
	1045	bbs.reserve(contours.size());
	1046
	1047	BOOST_FOREACH(const ContourVector::value_type& val, contours) {
	1048	bbs.push_back(val.bb);
	1049	}
	1050
	1051	Quadrify(bbs, curmesh);
	1052	}
	1053
	1054	// ------------------------------------------------------------------------------------------------
	1055	IfcMatrix4 ProjectOntoPlane(std::vector<IfcVector2>& out_contour, const TempMesh& in_mesh,
	1056	bool &ok, IfcVector3& nor_out)
	1057	{
	1058	const std::vector<IfcVector3>& in_verts = in_mesh.verts;
	1059	ok = true;
	1060
	1061	IfcMatrix4 m = IfcMatrix4(DerivePlaneCoordinateSpace(in_mesh, ok, nor_out));
	1062	if(!ok) {
	1063	return IfcMatrix4();
	1064	}
	1065	#ifdef ASSIMP_BUILD_DEBUG
	1066	const IfcFloat det = m.Determinant();
	1067	ai_assert(fabs(det-1) < 1e-5);
	1068	#endif
	1069
	1070	IfcFloat zcoord = 0;
	1071	out_contour.reserve(in_verts.size());
	1072
	1073
	1074	IfcVector3 vmin, vmax;
	1075	MinMaxChooser<IfcVector3>()(vmin, vmax);
	1076
	1077	// Project all points into the new coordinate system, collect min/max verts on the way
	1078	BOOST_FOREACH(const IfcVector3& x, in_verts) {
	1079	const IfcVector3& vv = m * x;
	1080	// keep Z offset in the plane coordinate system. Ignoring precision issues
	1081	// (which are present, of course), this should be the same value for
	1082	// all polygon vertices (assuming the polygon is planar).
	1083
	1084	// XXX this should be guarded, but we somehow need to pick a suitable
	1085	// epsilon
	1086	// if(coord != -1.0f) {
	1087	// assert(fabs(coord - vv.z) < 1e-3f);
	1088	// }
	1089	zcoord += vv.z;
	1090	vmin = std::min(vv, vmin);
	1091	vmax = std::max(vv, vmax);
	1092
	1093	out_contour.push_back(IfcVector2(vv.x,vv.y));
	1094	}
	1095
	1096	zcoord /= in_verts.size();
	1097
	1098	// Further improve the projection by mapping the entire working set into
	1099	// [0,1] range. This gives us a consistent data range so all epsilons
	1100	// used below can be constants.
	1101	vmax -= vmin;
	1102	BOOST_FOREACH(IfcVector2& vv, out_contour) {
	1103	vv.x = (vv.x - vmin.x) / vmax.x;
	1104	vv.y = (vv.y - vmin.y) / vmax.y;
	1105
	1106	// sanity rounding
	1107	vv = std::max(vv,IfcVector2());
	1108	vv = std::min(vv,one_vec);
	1109	}
	1110
	1111	IfcMatrix4 mult;
	1112	mult.a1 = static_cast<IfcFloat>(1.0) / vmax.x;
	1113	mult.b2 = static_cast<IfcFloat>(1.0) / vmax.y;
	1114
	1115	mult.a4 = -vmin.x * mult.a1;
	1116	mult.b4 = -vmin.y * mult.b2;
	1117	mult.c4 = -zcoord;
	1118	m = mult * m;
	1119
	1120	// debug code to verify correctness
	1121	#ifdef ASSIMP_BUILD_DEBUG
	1122	std::vector<IfcVector2> out_contour2;
	1123	BOOST_FOREACH(const IfcVector3& x, in_verts) {
	1124	const IfcVector3& vv = m * x;
	1125
	1126	out_contour2.push_back(IfcVector2(vv.x,vv.y));
	1127	ai_assert(fabs(vv.z) < vmax.z + 1e-8);
	1128	}
	1129
	1130	for(size_t i = 0; i < out_contour.size(); ++i) {
	1131	ai_assert((out_contour[i]-out_contour2[i]).SquareLength() < 1e-6);
	1132	}
	1133	#endif
	1134
	1135	return m;
	1136	}
	1137
	1138	// ------------------------------------------------------------------------------------------------
	1139	bool GenerateOpenings(std::vector<TempOpening>& openings,
	1140	const std::vector<IfcVector3>& nors,
	1141	TempMesh& curmesh,
	1142	bool check_intersection,
	1143	bool generate_connection_geometry,
	1144	const IfcVector3& wall_extrusion_axis)
	1145	{
	1146	OpeningRefVector contours_to_openings;
	1147
	1148	// Try to derive a solid base plane within the current surface for use as
	1149	// working coordinate system. Map all vertices onto this plane and
	1150	// rescale them to [0,1] range. This normalization means all further
	1151	// epsilons need not be scaled.
	1152	bool ok = true;
	1153
	1154	std::vector<IfcVector2> contour_flat;
	1155
	1156	IfcVector3 nor;
	1157	const IfcMatrix4& m = ProjectOntoPlane(contour_flat, curmesh, ok, nor);
	1158	if(!ok) {
	1159	return false;
	1160	}
	1161
	1162	// Obtain inverse transform for getting back to world space later on
	1163	const IfcMatrix4 minv = IfcMatrix4(m).Inverse();
	1164
	1165	// Compute bounding boxes for all 2D openings in projection space
	1166	ContourVector contours;
	1167
	1168	std::vector<IfcVector2> temp_contour;
	1169	std::vector<IfcVector2> temp_contour2;
	1170
	1171	IfcVector3 wall_extrusion_axis_norm = wall_extrusion_axis;
	1172	wall_extrusion_axis_norm.Normalize();
	1173
	1174	BOOST_FOREACH(TempOpening& opening,openings) {
	1175
	1176	// extrusionDir may be 0,0,0 on case where the opening mesh is not an
	1177	// IfcExtrudedAreaSolid but something else (i.e. a brep)
	1178	IfcVector3 norm_extrusion_dir = opening.extrusionDir;
	1179	if (norm_extrusion_dir.SquareLength() > 1e-10) {
	1180	norm_extrusion_dir.Normalize();
	1181	}
	1182	else {
	1183	norm_extrusion_dir = IfcVector3();
	1184	}
	1185
	1186	TempMesh* profile_data = opening.profileMesh.get();
	1187	bool is_2d_source = false;
	1188	if (opening.profileMesh2D && norm_extrusion_dir.SquareLength() > 0) {
	1189
	1190	if(fabs(norm_extrusion_dir * wall_extrusion_axis_norm) < 0.1) {
	1191	// horizontal extrusion
	1192	if (fabs(norm_extrusion_dir * nor) > 0.9) {
	1193	profile_data = opening.profileMesh2D.get();
	1194	is_2d_source = true;
	1195	}
	1196	else {
	1197	//continue;
	1198	}
	1199	}
	1200	else {
	1201	// vertical extrusion
	1202	if (fabs(norm_extrusion_dir * nor) > 0.9) {
	1203	continue;
	1204	}
	1205	continue;
	1206	}
	1207	}
	1208	std::vector<IfcVector3> profile_verts = profile_data->verts;
	1209	std::vector<unsigned int> profile_vertcnts = profile_data->vertcnt;
	1210	if(profile_verts.size() <= 2) {
	1211	continue;
	1212	}
	1213
	1214	// The opening meshes are real 3D meshes so skip over all faces
	1215	// clearly facing into the wrong direction. Also, we need to check
	1216	// whether the meshes do actually intersect the base surface plane.
	1217	// This is done by recording minimum and maximum values for the
	1218	// d component of the plane equation for all polys and checking
	1219	// against surface d.
	1220
	1221	// Use the sign of the dot product of the face normal to the plane
	1222	// normal to determine to which side of the difference mesh a
	1223	// triangle belongs. Get independent bounding boxes and vertex
	1224	// sets for both sides and take the better one (we can't just
	1225	// take both - this would likely cause major screwup of vertex
	1226	// winding, producing errors as late as in CloseWindows()).
	1227	IfcFloat dmin, dmax;
	1228	MinMaxChooser<IfcFloat>()(dmin,dmax);
	1229
	1230	temp_contour.clear();
	1231	temp_contour2.clear();
	1232
	1233	IfcVector2 vpmin,vpmax;
	1234	MinMaxChooser<IfcVector2>()(vpmin,vpmax);
	1235
	1236	IfcVector2 vpmin2,vpmax2;
	1237	MinMaxChooser<IfcVector2>()(vpmin2,vpmax2);
	1238
	1239	for (size_t f = 0, vi_total = 0, fend = profile_vertcnts.size(); f < fend; ++f) {
	1240
	1241	bool side_flag = true;
	1242	if (!is_2d_source) {
	1243	const IfcVector3& face_nor = ((profile_verts[vi_total+2] - profile_verts[vi_total]) ^
	1244	(profile_verts[vi_total+1] - profile_verts[vi_total])).Normalize();
	1245
	1246	const IfcFloat abs_dot_face_nor = abs(nor * face_nor);
	1247	if (abs_dot_face_nor < 0.9) {
	1248	vi_total += profile_vertcnts[f];
	1249	continue;
	1250	}
	1251
	1252	side_flag = nor * face_nor > 0;
	1253	}
	1254
	1255	for (unsigned int vi = 0, vend = profile_vertcnts[f]; vi < vend; ++vi, ++vi_total) {
	1256	const IfcVector3& x = profile_verts[vi_total];
	1257
	1258	const IfcVector3& v = m * x;
	1259	IfcVector2 vv(v.x, v.y);
	1260
	1261	//if(check_intersection) {
	1262	dmin = std::min(dmin, v.z);
	1263	dmax = std::max(dmax, v.z);
	1264	//}
	1265
	1266	// sanity rounding
	1267	vv = std::max(vv,IfcVector2());
	1268	vv = std::min(vv,one_vec);
	1269
	1270	if(side_flag) {
	1271	vpmin = std::min(vpmin,vv);
	1272	vpmax = std::max(vpmax,vv);
	1273	}
	1274	else {
	1275	vpmin2 = std::min(vpmin2,vv);
	1276	vpmax2 = std::max(vpmax2,vv);
	1277	}
	1278
	1279	std::vector<IfcVector2>& store = side_flag ? temp_contour : temp_contour2;
	1280
	1281	if (!IsDuplicateVertex(vv, store)) {
	1282	store.push_back(vv);
	1283	}
	1284	}
	1285	}
	1286
	1287	if (temp_contour2.size() > 2) {
	1288	ai_assert(!is_2d_source);
	1289	const IfcVector2 area = vpmax-vpmin;
	1290	const IfcVector2 area2 = vpmax2-vpmin2;
	1291	if (temp_contour.size() <= 2 \|\| fabs(area2.x * area2.y) > fabs(area.x * area.y)) {
	1292	temp_contour.swap(temp_contour2);
	1293
	1294	vpmax = vpmax2;
	1295	vpmin = vpmin2;
	1296	}
	1297	}
	1298	if(temp_contour.size() <= 2) {
	1299	continue;
	1300	}
	1301
	1302	// TODO: This epsilon may be too large
	1303	const IfcFloat epsilon = fabs(dmax-dmin) * 0.0001;
	1304	if (!is_2d_source && check_intersection && (0 < dmin-epsilon \|\| 0 > dmax+epsilon)) {
	1305	continue;
	1306	}
	1307
	1308	BoundingBox bb = BoundingBox(vpmin,vpmax);
	1309
	1310	// Skip over very small openings - these are likely projection errors
	1311	// (i.e. they don't belong to this side of the wall)
	1312	if(fabs(vpmax.x - vpmin.x) * fabs(vpmax.y - vpmin.y) < static_cast<IfcFloat>(1e-10)) {
	1313	continue;
	1314	}
	1315	std::vector<TempOpening*> joined_openings(1, &opening);
	1316
	1317	bool is_rectangle = temp_contour.size() == 4;
	1318
	1319	// See if this BB intersects or is in close adjacency to any other BB we have so far.
	1320	for (ContourVector::iterator it = contours.begin(); it != contours.end(); ) {
	1321	const BoundingBox& ibb = (*it).bb;
	1322
	1323	if (BoundingBoxesOverlapping(ibb, bb)) {
	1324
	1325	if (!(*it).is_rectangular) {
	1326	is_rectangle = false;
	1327	}
	1328
	1329	const std::vector<IfcVector2>& other = (*it).contour;
	1330	ClipperLib::ExPolygons poly;
	1331
	1332	// First check whether subtracting the old contour (to which ibb belongs)
	1333	// from the new contour (to which bb belongs) yields an updated bb which
	1334	// no longer overlaps ibb
	1335	MakeDisjunctWindowContours(other, temp_contour, poly);
	1336	if(poly.size() == 1) {
	1337
	1338	const BoundingBox& newbb = GetBoundingBox(poly[0].outer);
	1339	if (!BoundingBoxesOverlapping(ibb, newbb )) {
	1340	// Good guy bounding box
	1341	bb = newbb ;
	1342
	1343	ExtractVerticesFromClipper(poly[0].outer, temp_contour, false);
	1344	continue;
	1345	}
	1346	}
	1347
	1348	// Take these two overlapping contours and try to merge them. If they
	1349	// overlap (which should not happen, but in fact happens-in-the-real-
	1350	// world [tm] ), resume using a single contour and a single bounding box.
	1351	MergeWindowContours(temp_contour, other, poly);
	1352
	1353	if (poly.size() > 1) {
	1354	return TryAddOpenings_Poly2Tri(openings, nors, curmesh);
	1355	}
	1356	else if (poly.size() == 0) {
	1357	IFCImporter::LogWarn("ignoring duplicate opening");
	1358	temp_contour.clear();
	1359	break;
	1360	}
	1361	else {
	1362	IFCImporter::LogDebug("merging overlapping openings");
	1363	ExtractVerticesFromClipper(poly[0].outer, temp_contour, false);
	1364
	1365	// Generate the union of the bounding boxes
	1366	bb.first = std::min(bb.first, ibb.first);
	1367	bb.second = std::max(bb.second, ibb.second);
	1368
	1369	// Update contour-to-opening tables accordingly
	1370	if (generate_connection_geometry) {
	1371	std::vector<TempOpening*>& t = contours_to_openings[std::distance(contours.begin(),it)];
	1372	joined_openings.insert(joined_openings.end(), t.begin(), t.end());
	1373
	1374	contours_to_openings.erase(contours_to_openings.begin() + std::distance(contours.begin(),it));
	1375	}
	1376
	1377	contours.erase(it);
	1378
	1379	// Restart from scratch because the newly formed BB might now
	1380	// overlap any other BB which its constituent BBs didn't
	1381	// previously overlap.
	1382	it = contours.begin();
	1383	continue;
	1384	}
	1385	}
	1386	++it;
	1387	}
	1388
	1389	if(!temp_contour.empty()) {
	1390	if (generate_connection_geometry) {
	1391	contours_to_openings.push_back(std::vector<TempOpening*>(
	1392	joined_openings.begin(),
	1393	joined_openings.end()));
	1394	}
	1395
	1396	contours.push_back(ProjectedWindowContour(temp_contour, bb, is_rectangle));
	1397	}
	1398	}
	1399
	1400	// Check if we still have any openings left - it may well be that this is
	1401	// not the cause, for example if all the opening candidates don't intersect
	1402	// this surface or point into a direction perpendicular to it.
	1403	if (contours.empty()) {
	1404	return false;
	1405	}
	1406
	1407	curmesh.Clear();
	1408
	1409	// Generate a base subdivision into quads to accommodate the given list
	1410	// of window bounding boxes.
	1411	Quadrify(contours,curmesh);
	1412
	1413	// Run a sanity cleanup pass on the window contours to avoid generating
	1414	// artifacts during the contour generation phase later on.
	1415	CleanupWindowContours(contours);
	1416
	1417	// Previously we reduced all windows to rectangular AABBs in projection
	1418	// space, now it is time to fill the gaps between the BBs and the real
	1419	// window openings.
	1420	InsertWindowContours(contours,openings, curmesh);
	1421
	1422	// Clip the entire outer contour of our current result against the real
	1423	// outer contour of the surface. This is necessary because the result
	1424	// of the Quadrify() algorithm is always a square area spanning
	1425	// over [0,1]^2 (i.e. entire projection space).
	1426	CleanupOuterContour(contour_flat, curmesh);
	1427
	1428	// Undo the projection and get back to world (or local object) space
	1429	BOOST_FOREACH(IfcVector3& v3, curmesh.verts) {
	1430	v3 = minv * v3;
	1431	}
	1432
	1433	// Generate window caps to connect the symmetric openings on both sides
	1434	// of the wall.
	1435	if (generate_connection_geometry) {
	1436	CloseWindows(contours, minv, contours_to_openings, curmesh);
	1437	}
	1438	return true;
	1439	}
	1440
	1441	// ------------------------------------------------------------------------------------------------
	1442	bool TryAddOpenings_Poly2Tri(const std::vector<TempOpening>& openings,const std::vector<IfcVector3>& nors,
	1443	TempMesh& curmesh)
	1444	{
	1445	IFCImporter::LogWarn("forced to use poly2tri fallback method to generate wall openings");
	1446	std::vector<IfcVector3>& out = curmesh.verts;
	1447
	1448	bool result = false;
	1449
	1450	// Try to derive a solid base plane within the current surface for use as
	1451	// working coordinate system.
	1452	bool ok;
	1453	IfcVector3 nor;
	1454	const IfcMatrix3& m = DerivePlaneCoordinateSpace(curmesh, ok, nor);
	1455	if (!ok) {
	1456	return false;
	1457	}
	1458
	1459	const IfcMatrix3 minv = IfcMatrix3(m).Inverse();
	1460
	1461
	1462	IfcFloat coord = -1;
	1463
	1464	std::vector<IfcVector2> contour_flat;
	1465	contour_flat.reserve(out.size());
	1466
	1467	IfcVector2 vmin, vmax;
	1468	MinMaxChooser<IfcVector2>()(vmin, vmax);
	1469
	1470	// Move all points into the new coordinate system, collecting min/max verts on the way
	1471	BOOST_FOREACH(IfcVector3& x, out) {
	1472	const IfcVector3 vv = m * x;
	1473
	1474	// keep Z offset in the plane coordinate system. Ignoring precision issues
	1475	// (which are present, of course), this should be the same value for
	1476	// all polygon vertices (assuming the polygon is planar).
	1477
	1478
	1479	// XXX this should be guarded, but we somehow need to pick a suitable
	1480	// epsilon
	1481	// if(coord != -1.0f) {
	1482	// assert(fabs(coord - vv.z) < 1e-3f);
	1483	// }
	1484
	1485	coord = vv.z;
	1486
	1487	vmin = std::min(IfcVector2(vv.x, vv.y), vmin);
	1488	vmax = std::max(IfcVector2(vv.x, vv.y), vmax);
	1489
	1490	contour_flat.push_back(IfcVector2(vv.x,vv.y));
	1491	}
	1492
	1493	// With the current code in DerivePlaneCoordinateSpace,
	1494	// vmin,vmax should always be the 0...1 rectangle (+- numeric inaccuracies)
	1495	// but here we won't rely on this.
	1496
	1497	vmax -= vmin;
	1498
	1499	// If this happens then the projection must have been wrong.
	1500	assert(vmax.Length());
	1501
	1502	ClipperLib::ExPolygons clipped;
	1503	ClipperLib::Polygons holes_union;
	1504
	1505
	1506	IfcVector3 wall_extrusion;
	1507	bool do_connections = false, first = true;
	1508
	1509	try {
	1510
	1511	ClipperLib::Clipper clipper_holes;
	1512	size_t c = 0;
	1513
	1514	BOOST_FOREACH(const TempOpening& t,openings) {
	1515	const IfcVector3& outernor = nors[c++];
	1516	const IfcFloat dot = nor * outernor;
	1517	if (fabs(dot)<1.f-1e-6f) {
	1518	continue;
	1519	}
	1520
	1521	const std::vector<IfcVector3>& va = t.profileMesh->verts;
	1522	if(va.size() <= 2) {
	1523	continue;
	1524	}
	1525
	1526	std::vector<IfcVector2> contour;
	1527
	1528	BOOST_FOREACH(const IfcVector3& xx, t.profileMesh->verts) {
	1529	IfcVector3 vv = m * xx, vv_extr = m * (xx + t.extrusionDir);
	1530
	1531	const bool is_extruded_side = fabs(vv.z - coord) > fabs(vv_extr.z - coord);
	1532	if (first) {
	1533	first = false;
	1534	if (dot > 0.f) {
	1535	do_connections = true;
	1536	wall_extrusion = t.extrusionDir;
	1537	if (is_extruded_side) {
	1538	wall_extrusion = - wall_extrusion;
	1539	}
	1540	}
	1541	}
	1542
	1543	// XXX should not be necessary - but it is. Why? For precision reasons?
	1544	vv = is_extruded_side ? vv_extr : vv;
	1545	contour.push_back(IfcVector2(vv.x,vv.y));
	1546	}
	1547
	1548	ClipperLib::Polygon hole;
	1549	BOOST_FOREACH(IfcVector2& pip, contour) {
	1550	pip.x = (pip.x - vmin.x) / vmax.x;
	1551	pip.y = (pip.y - vmin.y) / vmax.y;
	1552
	1553	hole.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
	1554	}
	1555
	1556	if (!ClipperLib::Orientation(hole)) {
	1557	std::reverse(hole.begin(), hole.end());
	1558	// assert(ClipperLib::Orientation(hole));
	1559	}
	1560
	1561	/*ClipperLib::Polygons pol_temp(1), pol_temp2(1);
	1562	pol_temp[0] = hole;
	1563
	1564	ClipperLib::OffsetPolygons(pol_temp,pol_temp2,5.0);
	1565	hole = pol_temp2[0];*/
	1566
	1567	clipper_holes.AddPolygon(hole,ClipperLib::ptSubject);
	1568	}
	1569
	1570	clipper_holes.Execute(ClipperLib::ctUnion,holes_union,
	1571	ClipperLib::pftNonZero,
	1572	ClipperLib::pftNonZero);
	1573
	1574	if (holes_union.empty()) {
	1575	return false;
	1576	}
	1577
	1578	// Now that we have the big union of all holes, subtract it from the outer contour
	1579	// to obtain the final polygon to feed into the triangulator.
	1580	{
	1581	ClipperLib::Polygon poly;
	1582	BOOST_FOREACH(IfcVector2& pip, contour_flat) {
	1583	pip.x = (pip.x - vmin.x) / vmax.x;
	1584	pip.y = (pip.y - vmin.y) / vmax.y;
	1585
	1586	poly.push_back(ClipperLib::IntPoint( to_int64(pip.x), to_int64(pip.y) ));
	1587	}
	1588
	1589	if (ClipperLib::Orientation(poly)) {
	1590	std::reverse(poly.begin(), poly.end());
	1591	}
	1592	clipper_holes.Clear();
	1593	clipper_holes.AddPolygon(poly,ClipperLib::ptSubject);
	1594
	1595	clipper_holes.AddPolygons(holes_union,ClipperLib::ptClip);
	1596	clipper_holes.Execute(ClipperLib::ctDifference,clipped,
	1597	ClipperLib::pftNonZero,
	1598	ClipperLib::pftNonZero);
	1599	}
	1600
	1601	}
	1602	catch (const char* sx) {
	1603	IFCImporter::LogError("Ifc: error during polygon clipping, skipping openings for this face: (Clipper: "
	1604	+ std::string(sx) + ")");
	1605
	1606	return false;
	1607	}
	1608
	1609	std::vector<IfcVector3> old_verts;
	1610	std::vector<unsigned int> old_vertcnt;
	1611
	1612	old_verts.swap(curmesh.verts);
	1613	old_vertcnt.swap(curmesh.vertcnt);
	1614
	1615
	1616	// add connection geometry to close the adjacent 'holes' for the openings
	1617	// this should only be done from one side of the wall or the polygons
	1618	// would be emitted twice.
	1619	if (false && do_connections) {
	1620
	1621	std::vector<IfcVector3> tmpvec;
	1622	BOOST_FOREACH(ClipperLib::Polygon& opening, holes_union) {
	1623
	1624	assert(ClipperLib::Orientation(opening));
	1625
	1626	tmpvec.clear();
	1627
	1628	BOOST_FOREACH(ClipperLib::IntPoint& point, opening) {
	1629
	1630	tmpvec.push_back( minv * IfcVector3(
	1631	vmin.x + from_int64(point.X) * vmax.x,
	1632	vmin.y + from_int64(point.Y) * vmax.y,
	1633	coord));
	1634	}
	1635
	1636	for(size_t i = 0, size = tmpvec.size(); i < size; ++i) {
	1637	const size_t next = (i+1)%size;
	1638
	1639	curmesh.vertcnt.push_back(4);
	1640
	1641	const IfcVector3& in_world = tmpvec[i];
	1642	const IfcVector3& next_world = tmpvec[next];
	1643
	1644	// Assumptions: no 'partial' openings, wall thickness roughly the same across the wall
	1645	curmesh.verts.push_back(in_world);
	1646	curmesh.verts.push_back(in_world+wall_extrusion);
	1647	curmesh.verts.push_back(next_world+wall_extrusion);
	1648	curmesh.verts.push_back(next_world);
	1649	}
	1650	}
	1651	}
	1652
	1653	std::vector< std::vector<p2t::Point*> > contours;
	1654	BOOST_FOREACH(ClipperLib::ExPolygon& clip, clipped) {
	1655
	1656	contours.clear();
	1657
	1658	// Build the outer polygon contour line for feeding into poly2tri
	1659	std::vector<p2t::Point*> contour_points;
	1660	BOOST_FOREACH(ClipperLib::IntPoint& point, clip.outer) {
	1661	contour_points.push_back( new p2t::Point(from_int64(point.X), from_int64(point.Y)) );
	1662	}
	1663
	1664	p2t::CDT* cdt ;
	1665	try {
	1666	// Note: this relies on custom modifications in poly2tri to raise runtime_error's
	1667	// instead if assertions. These failures are not debug only, they can actually
	1668	// happen in production use if the input data is broken. An assertion would be
	1669	// inappropriate.
	1670	cdt = new p2t::CDT(contour_points);
	1671	}
	1672	catch(const std::exception& e) {
	1673	IFCImporter::LogError("Ifc: error during polygon triangulation, skipping some openings: (poly2tri: "
	1674	+ std::string(e.what()) + ")");
	1675	continue;
	1676	}
	1677
	1678
	1679	// Build the poly2tri inner contours for all holes we got from ClipperLib
	1680	BOOST_FOREACH(ClipperLib::Polygon& opening, clip.holes) {
	1681
	1682	contours.push_back(std::vector<p2t::Point*>());
	1683	std::vector<p2t::Point*>& contour = contours.back();
	1684
	1685	BOOST_FOREACH(ClipperLib::IntPoint& point, opening) {
	1686	contour.push_back( new p2t::Point(from_int64(point.X), from_int64(point.Y)) );
	1687	}
	1688
	1689	cdt->AddHole(contour);
	1690	}
	1691
	1692	try {
	1693	// Note: See above
	1694	cdt->Triangulate();
	1695	}
	1696	catch(const std::exception& e) {
	1697	IFCImporter::LogError("Ifc: error during polygon triangulation, skipping some openings: (poly2tri: "
	1698	+ std::string(e.what()) + ")");
	1699	continue;
	1700	}
	1701
	1702	const std::vector<p2t::Triangle*>& tris = cdt->GetTriangles();
	1703
	1704	// Collect the triangles we just produced
	1705	BOOST_FOREACH(p2t::Triangle* tri, tris) {
	1706	for(int i = 0; i < 3; ++i) {
	1707
	1708	const IfcVector2& v = IfcVector2(
	1709	static_cast<IfcFloat>( tri->GetPoint(i)->x ),
	1710	static_cast<IfcFloat>( tri->GetPoint(i)->y )
	1711	);
	1712
	1713	assert(v.x <= 1.0 && v.x >= 0.0 && v.y <= 1.0 && v.y >= 0.0);
	1714	const IfcVector3 v3 = minv * IfcVector3(vmin.x + v.x * vmax.x, vmin.y + v.y * vmax.y,coord) ;
	1715
	1716	curmesh.verts.push_back(v3);
	1717	}
	1718	curmesh.vertcnt.push_back(3);
	1719	}
	1720
	1721	result = true;
	1722	}
	1723
	1724	if (!result) {
	1725	// revert -- it's a shame, but better than nothing
	1726	curmesh.verts.insert(curmesh.verts.end(),old_verts.begin(), old_verts.end());
	1727	curmesh.vertcnt.insert(curmesh.vertcnt.end(),old_vertcnt.begin(), old_vertcnt.end());
	1728
	1729	IFCImporter::LogError("Ifc: revert, could not generate openings for this wall");
	1730	}
	1731
	1732	return result;
	1733	}
	1734
	1735
	1736	} // ! IFC
	1737	} // ! Assimp
	1738
	1739	#undef to_int64
	1740	#undef from_int64
	1741	#undef one_vec
	1742
	1743	#endif ⏎

+21

-0

code/IFCProfile.cpp less more

128	128
129	129	meshout.vertcnt.push_back(segments);
130	130	}
	131	else if( const IfcIShapeProfileDef* const ishape = def.ToPtr<IfcIShapeProfileDef>()) {
	132	// construct simplified IBeam shape
	133	const IfcFloat offset = (ishape->OverallWidth - ishape->WebThickness) / 2;
	134	const IfcFloat inner_height = ishape->OverallDepth - ishape->FlangeThickness * 2;
	135
	136	meshout.verts.reserve(12);
	137	meshout.verts.push_back(IfcVector3(0,0,0));
	138	meshout.verts.push_back(IfcVector3(0,ishape->FlangeThickness,0));
	139	meshout.verts.push_back(IfcVector3(offset,ishape->FlangeThickness,0));
	140	meshout.verts.push_back(IfcVector3(offset,ishape->FlangeThickness + inner_height,0));
	141	meshout.verts.push_back(IfcVector3(0,ishape->FlangeThickness + inner_height,0));
	142	meshout.verts.push_back(IfcVector3(0,ishape->OverallDepth,0));
	143	meshout.verts.push_back(IfcVector3(ishape->OverallWidth,ishape->OverallDepth,0));
	144	meshout.verts.push_back(IfcVector3(ishape->OverallWidth,ishape->FlangeThickness + inner_height,0));
	145	meshout.verts.push_back(IfcVector3(offset+ishape->WebThickness,ishape->FlangeThickness + inner_height,0));
	146	meshout.verts.push_back(IfcVector3(offset+ishape->WebThickness,ishape->FlangeThickness,0));
	147	meshout.verts.push_back(IfcVector3(ishape->OverallWidth,ishape->FlangeThickness,0));
	148	meshout.verts.push_back(IfcVector3(ishape->OverallWidth,0,0));
	149
	150	meshout.vertcnt.push_back(12);
	151	}
131	152	else {
132	153	IFCImporter::LogWarn("skipping unknown IfcParameterizedProfileDef entity, type is " + def.GetClassName());
133	154	return;

+4530

-4300

code/IFCReaderGen.cpp less more

0	0	/*
1		Open Asset Import Library (assimp)
	1	Open Asset Import Library (ASSIMP)
2	2	----------------------------------------------------------------------
3	3
4		Copyright (c) 2006-2012, assimp team
	4	Copyright (c) 2006-2010, ASSIMP Development Team
5	5	All rights reserved.
6	6
7	7	Redistribution and use of this software in source and binary forms,

17	17	following disclaimer in the documentation and/or other
18	18	materials provided with the distribution.
19	19
20		* Neither the name of the assimp team, nor the names of its
	20	* Neither the name of the ASSIMP team, nor the names of its
21	21	contributors may be used to endorse or promote products
22	22	derived from this software without specific prior
23		written permission of the assimp team.
	23	written permission of the ASSIMP Development Team.
24	24
25	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
26	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT

51	51
52	52	typedef EXPRESS::ConversionSchema::SchemaEntry SchemaEntry;
53	53	const SchemaEntry schema_raw[] = {
54		SchemaEntry("ifcsoundpowermeasure",NULL )
	54	SchemaEntry("ifcstairtypeenum",NULL )
	55	, SchemaEntry("ifcspacetypeenum",NULL )
	56	, SchemaEntry("ifcwalltypeenum",NULL )
	57	, SchemaEntry("ifcmonthinyearnumber",NULL )
	58	, SchemaEntry("ifcheatfluxdensitymeasure",NULL )
	59	, SchemaEntry("ifckinematicviscositymeasure",NULL )
	60	, SchemaEntry("ifcsequenceenum",NULL )
	61	, SchemaEntry("ifcairtoairheatrecoverytypeenum",NULL )
	62	, SchemaEntry("ifcactorselect",NULL )
	63	, SchemaEntry("ifctransformertypeenum",NULL )
	64	, SchemaEntry("ifcunitaryequipmenttypeenum",NULL )
	65	, SchemaEntry("ifcelectricflowstoragedevicetypeenum",NULL )
	66	, SchemaEntry("ifcenergysequenceenum",NULL )
	67	, SchemaEntry("ifcworkcontroltypeenum",NULL )
	68	, SchemaEntry("ifccurvaturemeasure",NULL )
	69	, SchemaEntry("ifcparametervalue",NULL )
	70	, SchemaEntry("ifcappliedvalueselect",NULL )
	71	, SchemaEntry("ifcwarpingconstantmeasure",NULL )
	72	, SchemaEntry("ifcarithmeticoperatorenum",NULL )
	73	, SchemaEntry("ifclinearforcemeasure",NULL )
	74	, SchemaEntry("ifcwindowpanelpositionenum",NULL )
	75	, SchemaEntry("ifcflowmetertypeenum",NULL )
	76	, SchemaEntry("ifcrampflighttypeenum",NULL )
	77	, SchemaEntry("ifcspecularhighlightselect",NULL )
	78	, SchemaEntry("ifcactiontypeenum",NULL )
	79	, SchemaEntry("ifcgeometricprojectionenum",NULL )
	80	, SchemaEntry("ifctimeseriesdatatypeenum",NULL )
	81	, SchemaEntry("ifcmagneticfluxmeasure",NULL )
	82	, SchemaEntry("ifcobjecttypeenum",NULL )
	83	, SchemaEntry("ifcdataoriginenum",NULL )
	84	, SchemaEntry("ifcmassdensitymeasure",NULL )
	85	, SchemaEntry("ifclightfixturetypeenum",NULL )
	86	, SchemaEntry("ifcservicelifetypeenum",NULL )
	87	, SchemaEntry("ifcelectricvoltagemeasure",NULL )
	88	, SchemaEntry("ifcheatingvaluemeasure",NULL )
	89	, SchemaEntry("ifcpresentabletext",NULL )
	90	, SchemaEntry("ifcaheadorbehind",NULL )
	91	, SchemaEntry("ifcsimplevalue",NULL )
	92	, SchemaEntry("ifcsensortypeenum",NULL )
	93	, SchemaEntry("ifcderivedunitenum",NULL )
	94	, SchemaEntry("ifcsizeselect",NULL )
	95	, SchemaEntry("ifctransportelementtypeenum",NULL )
	96	, SchemaEntry("ifcinventorytypeenum",NULL )
	97	, SchemaEntry("ifctextdecoration",NULL )
	98	, SchemaEntry("ifcdirectionsenseenum",NULL )
	99	, SchemaEntry("ifcductfittingtypeenum",NULL )
	100	, SchemaEntry("ifcdocumentstatusenum",NULL )
	101	, SchemaEntry("ifcslabtypeenum",NULL )
	102	, SchemaEntry("ifcdoorstyleconstructionenum",NULL )
	103	, SchemaEntry("ifcvolumemeasure",NULL )
	104	, SchemaEntry("ifcinductancemeasure",NULL )
	105	, SchemaEntry("ifccurtainwalltypeenum",NULL )
	106	, SchemaEntry("ifcsiunitname",NULL )
	107	, SchemaEntry("ifcspecularexponent",NULL )
	108	, SchemaEntry("ifcsoundpressuremeasure",NULL )
	109	, SchemaEntry("ifcanalysistheorytypeenum",NULL )
	110	, SchemaEntry("ifcgasterminaltypeenum",NULL )
	111	, SchemaEntry("ifcyearnumber",NULL )
	112	, SchemaEntry("ifcmodulusofelasticitymeasure",NULL )
	113	, SchemaEntry("ifcchangeactionenum",NULL )
	114	, SchemaEntry("ifcdampertypeenum",NULL )
	115	, SchemaEntry("ifcevaporatortypeenum",NULL )
	116	, SchemaEntry("ifcionconcentrationmeasure",NULL )
	117	, SchemaEntry("ifcductsegmenttypeenum",NULL )
	118	, SchemaEntry("ifcprotectivedevicetypeenum",NULL )
	119	, SchemaEntry("ifcabsorbeddosemeasure",NULL )
	120	, SchemaEntry("ifcmassperlengthmeasure",NULL )
	121	, SchemaEntry("ifctextfontname",NULL )
	122	, SchemaEntry("ifcorientationselect",NULL )
	123	, SchemaEntry("ifcilluminancemeasure",NULL )
	124	, SchemaEntry("ifcfiresuppressionterminaltypeenum",NULL )
	125	, SchemaEntry("ifcfontstyle",NULL )
	126	, SchemaEntry("ifcmomentofinertiameasure",NULL )
	127	, SchemaEntry("ifcmodulusofsubgradereactionmeasure",NULL )
	128	, SchemaEntry("ifccomplexnumber",NULL )
	129	, SchemaEntry("ifchumidifiertypeenum",NULL )
	130	, SchemaEntry("ifcpresentationstyleselect",NULL )
	131	, SchemaEntry("ifcthermaltransmittancemeasure",NULL )
	132	, SchemaEntry("ifcribplatedirectionenum",NULL )
	133	, SchemaEntry("ifcclassificationnotationselect",NULL )
	134	, SchemaEntry("ifcminuteinhour",NULL )
	135	, SchemaEntry("ifcinternalorexternalenum",NULL )
	136	, SchemaEntry("ifcrotationalfrequencymeasure",NULL )
	137	, SchemaEntry("ifcsanitaryterminaltypeenum",NULL )
	138	, SchemaEntry("ifcsymbolstyleselect",NULL )
	139	, SchemaEntry("ifcelementcompositionenum",NULL )
	140	, SchemaEntry("ifctextpath",NULL )
	141	, SchemaEntry("ifcpowermeasure",NULL )
	142	, SchemaEntry("ifcsurfacestyleelementselect",NULL )
	143	, SchemaEntry("ifcresourceconsumptionenum",NULL )
	144	, SchemaEntry("ifcelectriccapacitancemeasure",NULL )
	145	, SchemaEntry("ifclayersetdirectionenum",NULL )
	146	, SchemaEntry("ifcrailingtypeenum",NULL )
	147	, SchemaEntry("ifcobjectiveenum",NULL )
	148	, SchemaEntry("ifcdocumentselect",NULL )
	149	, SchemaEntry("ifcmodulusoflinearsubgradereactionmeasure",NULL )
	150	, SchemaEntry("ifcthermaladmittancemeasure",NULL )
	151	, SchemaEntry("ifctransitioncode",NULL )
	152	, SchemaEntry("ifcconnectiontypeenum",NULL )
	153	, SchemaEntry("ifcmonetarymeasure",NULL )
	154	, SchemaEntry("ifcstackterminaltypeenum",NULL )
	155	, SchemaEntry("ifccolour",NULL )
	156	, SchemaEntry("ifctext",NULL )
	157	, SchemaEntry("ifccontextdependentmeasure",NULL )
	158	, SchemaEntry("ifcthermalconductivitymeasure",NULL )
	159	, SchemaEntry("ifcprojectedortruelengthenum",NULL )
	160	, SchemaEntry("ifcpressuremeasure",NULL )
	161	, SchemaEntry("ifcmoisturediffusivitymeasure",NULL )
	162	, SchemaEntry("ifcbooleanoperator",NULL )
	163	, SchemaEntry("ifcpropertysourceenum",NULL )
	164	, SchemaEntry("ifctimestamp",NULL )
	165	, SchemaEntry("ifcmaterialselect",NULL )
	166	, SchemaEntry("ifcgloballyuniqueid",NULL )
	167	, SchemaEntry("ifcreflectancemethodenum",NULL )
	168	, SchemaEntry("ifcvaporpermeabilitymeasure",NULL )
	169	, SchemaEntry("ifctimeseriesscheduletypeenum",NULL )
	170	, SchemaEntry("ifclinearmomentmeasure",NULL )
	171	, SchemaEntry("ifcgeometricsetselect",NULL )
	172	, SchemaEntry("ifcsectionmodulusmeasure",NULL )
	173	, SchemaEntry("ifcbsplinecurveform",NULL )
	174	, SchemaEntry("ifcdimensionextentusage",NULL )
	175	, SchemaEntry("ifcthermalexpansioncoefficientmeasure",NULL )
	176	, SchemaEntry("ifchourinday",NULL )
	177	, SchemaEntry("ifclinearvelocitymeasure",NULL )
	178	, SchemaEntry("ifctorquemeasure",NULL )
	179	, SchemaEntry("ifctemperaturegradientmeasure",NULL )
	180	, SchemaEntry("ifcfillstyleselect",NULL )
	181	, SchemaEntry("ifcelectricchargemeasure",NULL )
	182	, SchemaEntry("ifcheatexchangertypeenum",NULL )
	183	, SchemaEntry("ifcelectriccurrentenum",NULL )
	184	, SchemaEntry("ifcdaylightsavinghour",NULL )
	185	, SchemaEntry("ifcshell",NULL )
	186	, SchemaEntry("ifcdoseequivalentmeasure",NULL )
	187	, SchemaEntry("ifcprojectordertypeenum",NULL )
	188	, SchemaEntry("ifcderivedmeasurevalue",NULL )
	189	, SchemaEntry("ifclightdistributioncurveenum",NULL )
	190	, SchemaEntry("ifcwarpingmomentmeasure",NULL )
	191	, SchemaEntry("ifcmembertypeenum",NULL )
	192	, SchemaEntry("ifcsoundpowermeasure",NULL )
	193	, SchemaEntry("ifctextalignment",NULL )
	194	, SchemaEntry("ifccurveoredgecurve",NULL )
	195	, SchemaEntry("ifcmassflowratemeasure",NULL )
	196	, SchemaEntry("ifcisothermalmoisturecapacitymeasure",NULL )
	197	, SchemaEntry("ifccsgselect",NULL )
	198	, SchemaEntry("ifccoolingtowertypeenum",NULL )
	199	, SchemaEntry("ifcmassmeasure",NULL )
	200	, SchemaEntry("ifcpileconstructionenum",NULL )
55	201	, SchemaEntry("ifcdoorstyleoperationenum",NULL )
56		, SchemaEntry("ifcrotationalfrequencymeasure",NULL )
57		, SchemaEntry("ifccharacterstyleselect",NULL )
	202	, SchemaEntry("ifcflowdirectionenum",NULL )
	203	, SchemaEntry("ifcthermalloadsourceenum",NULL )
	204	, SchemaEntry("ifclengthmeasure",NULL )
	205	, SchemaEntry("ifcconstraintenum",NULL )
	206	, SchemaEntry("ifcaxis2placement",NULL )
	207	, SchemaEntry("ifcloadgrouptypeenum",NULL )
	208	, SchemaEntry("ifcvalue",NULL )
	209	, SchemaEntry("ifcreinforcingbarsurfaceenum",NULL )
	210	, SchemaEntry("ifcprojectorderrecordtypeenum",NULL )
	211	, SchemaEntry("ifcdatetimeselect",NULL )
	212	, SchemaEntry("ifcstructuralsurfacetypeenum",NULL )
	213	, SchemaEntry("ifcpermeablecoveringoperationenum",NULL )
	214	, SchemaEntry("ifcfontweight",NULL )
	215	, SchemaEntry("ifcphmeasure",NULL )
	216	, SchemaEntry("ifcdescriptivemeasure",NULL )
	217	, SchemaEntry("ifccurvestylefontselect",NULL )
	218	, SchemaEntry("ifcunit",NULL )
	219	, SchemaEntry("ifchatchlinedistanceselect",NULL )
	220	, SchemaEntry("ifctextstyleselect",NULL )
	221	, SchemaEntry("ifcmetricvalueselect",NULL )
	222	, SchemaEntry("ifcvectorordirection",NULL )
	223	, SchemaEntry("ifcassemblyplaceenum",NULL )
	224	, SchemaEntry("ifcairterminaltypeenum",NULL )
	225	, SchemaEntry("ifccoveringtypeenum",NULL )
	226	, SchemaEntry("ifcplanarforcemeasure",NULL )
	227	, SchemaEntry("ifcvalvetypeenum",NULL )
	228	, SchemaEntry("ifcalarmtypeenum",NULL )
	229	, SchemaEntry("ifcdynamicviscositymeasure",NULL )
	230	, SchemaEntry("ifccurrencyenum",NULL )
	231	, SchemaEntry("ifcmodulusofrotationalsubgradereactionmeasure",NULL )
	232	, SchemaEntry("ifccablecarrierfittingtypeenum",NULL )
	233	, SchemaEntry("ifcboolean",NULL )
	234	, SchemaEntry("ifcactionsourcetypeenum",NULL )
	235	, SchemaEntry("ifcstructuralactivityassignmentselect",NULL )
	236	, SchemaEntry("ifcdistributionchamberelementtypeenum",NULL )
	237	, SchemaEntry("ifcevaporativecoolertypeenum",NULL )
	238	, SchemaEntry("ifcmagneticfluxdensitymeasure",NULL )
	239	, SchemaEntry("ifclightdistributiondatasourceselect",NULL )
	240	, SchemaEntry("ifctubebundletypeenum",NULL )
	241	, SchemaEntry("ifcaccelerationmeasure",NULL )
	242	, SchemaEntry("ifcboilertypeenum",NULL )
	243	, SchemaEntry("ifcramptypeenum",NULL )
	244	, SchemaEntry("ifcluminousintensitydistributionmeasure",NULL )
	245	, SchemaEntry("ifctrimmingpreference",NULL )
	246	, SchemaEntry("ifcspecificheatcapacitymeasure",NULL )
	247	, SchemaEntry("ifcamountofsubstancemeasure",NULL )
	248	, SchemaEntry("ifcroleenum",NULL )
	249	, SchemaEntry("ifcdocumentconfidentialityenum",NULL )
	250	, SchemaEntry("ifcfrequencymeasure",NULL )
	251	, SchemaEntry("ifcsectiontypeenum",NULL )
	252	, SchemaEntry("ifcelementassemblytypeenum",NULL )
	253	, SchemaEntry("ifcfootingtypeenum",NULL )
	254	, SchemaEntry("ifclayereditem",NULL )
	255	, SchemaEntry("ifccablesegmenttypeenum",NULL )
	256	, SchemaEntry("ifcdefinedsymbolselect",NULL )
	257	, SchemaEntry("ifcbuildingelementproxytypeenum",NULL )
	258	, SchemaEntry("ifcelectricgeneratortypeenum",NULL )
	259	, SchemaEntry("ifcrotationalstiffnessmeasure",NULL )
	260	, SchemaEntry("ifcspaceheatertypeenum",NULL )
	261	, SchemaEntry("ifcareameasure",NULL )
	262	, SchemaEntry("ifclabel",NULL )
	263	, SchemaEntry("ifccostscheduletypeenum",NULL )
	264	, SchemaEntry("ifcswitchingdevicetypeenum",NULL )
58	265	, SchemaEntry("ifcelectrictimecontroltypeenum",NULL )
59		, SchemaEntry("ifcairterminaltypeenum",NULL )
60		, SchemaEntry("ifcprojectordertypeenum",NULL )
61		, SchemaEntry("ifcsequenceenum",NULL )
62		, SchemaEntry("ifcspecificheatcapacitymeasure",NULL )
63		, SchemaEntry("ifcheatingvaluemeasure",NULL )
64		, SchemaEntry("ifcribplatedirectionenum",NULL )
65		, SchemaEntry("ifcsensortypeenum",NULL )
	266	, SchemaEntry("ifcfiltertypeenum",NULL )
	267	, SchemaEntry("ifcpositivelengthmeasure",NULL )
	268	, SchemaEntry("ifcnullstyle",NULL )
	269	, SchemaEntry("ifcconditioncriterionselect",NULL )
	270	, SchemaEntry("ifcshearmodulusmeasure",NULL )
	271	, SchemaEntry("ifcnormalisedratiomeasure",NULL )
	272	, SchemaEntry("ifcdoorpaneloperationenum",NULL )
	273	, SchemaEntry("ifcpointorvertexpoint",NULL )
	274	, SchemaEntry("ifcrooftypeenum",NULL )
	275	, SchemaEntry("ifccountmeasure",NULL )
	276	, SchemaEntry("ifcelectricconductancemeasure",NULL )
	277	, SchemaEntry("ifcproceduretypeenum",NULL )
	278	, SchemaEntry("ifcflowinstrumenttypeenum",NULL )
	279	, SchemaEntry("ifcelectricmotortypeenum",NULL )
	280	, SchemaEntry("ifcsurfaceside",NULL )
	281	, SchemaEntry("ifcstructuralcurvetypeenum",NULL )
	282	, SchemaEntry("ifccondensertypeenum",NULL )
	283	, SchemaEntry("ifclinearstiffnessmeasure",NULL )
	284	, SchemaEntry("ifcunitenum",NULL )
	285	, SchemaEntry("ifcoccupanttypeenum",NULL )
	286	, SchemaEntry("ifcthermalloadtypeenum",NULL )
	287	, SchemaEntry("ifcreinforcingbarroleenum",NULL )
	288	, SchemaEntry("ifcbenchmarkenum",NULL )
	289	, SchemaEntry("ifcpositiveplaneanglemeasure",NULL )
	290	, SchemaEntry("ifctexttransformation",NULL )
	291	, SchemaEntry("ifcdraughtingcalloutelement",NULL )
	292	, SchemaEntry("ifcratiomeasure",NULL )
	293	, SchemaEntry("ifcsolidanglemeasure",NULL )
	294	, SchemaEntry("ifcpipesegmenttypeenum",NULL )
	295	, SchemaEntry("ifccablecarriersegmenttypeenum",NULL )
	296	, SchemaEntry("ifccolourorfactor",NULL )
	297	, SchemaEntry("ifcidentifier",NULL )
	298	, SchemaEntry("ifctendontypeenum",NULL )
	299	, SchemaEntry("ifccontrollertypeenum",NULL )
	300	, SchemaEntry("ifcradioactivitymeasure",NULL )
	301	, SchemaEntry("ifctimemeasure",NULL )
	302	, SchemaEntry("ifcpumptypeenum",NULL )
66	303	, SchemaEntry("ifcelectricheatertypeenum",NULL )
67		, SchemaEntry("ifcobjectiveenum",NULL )
68		, SchemaEntry("ifctextstyleselect",NULL )
69		, SchemaEntry("ifccolumntypeenum",NULL )
70		, SchemaEntry("ifcgasterminaltypeenum",NULL )
71		, SchemaEntry("ifcmassdensitymeasure",NULL )
72		, SchemaEntry("ifcsimplevalue",NULL )
73		, SchemaEntry("ifcelectricconductancemeasure",NULL )
74		, SchemaEntry("ifcbuildingelementproxytypeenum",NULL )
75		, SchemaEntry("ifcjunctionboxtypeenum",NULL )
76		, SchemaEntry("ifcmodulusofelasticitymeasure",NULL )
77		, SchemaEntry("ifcactionsourcetypeenum",NULL )
78		, SchemaEntry("ifcsiunitname",NULL )
79		, SchemaEntry("ifcrotationalmassmeasure",NULL )
80		, SchemaEntry("ifcmembertypeenum",NULL )
81		, SchemaEntry("ifctextdecoration",NULL )
82		, SchemaEntry("ifcpositivelengthmeasure",NULL )
83		, SchemaEntry("ifcamountofsubstancemeasure",NULL )
84		, SchemaEntry("ifcdoorstyleconstructionenum",NULL )
85		, SchemaEntry("ifcangularvelocitymeasure",NULL )
86		, SchemaEntry("ifcdirectionsenseenum",NULL )
87		, SchemaEntry("ifcnullstyle",NULL )
88		, SchemaEntry("ifcmonthinyearnumber",NULL )
89		, SchemaEntry("ifcrampflighttypeenum",NULL )
90		, SchemaEntry("ifcwindowstyleoperationenum",NULL )
91		, SchemaEntry("ifccurvaturemeasure",NULL )
92		, SchemaEntry("ifcbooleanoperator",NULL )
93		, SchemaEntry("ifcductfittingtypeenum",NULL )
94		, SchemaEntry("ifccurrencyenum",NULL )
95		, SchemaEntry("ifcobjecttypeenum",NULL )
96		, SchemaEntry("ifcthermalloadtypeenum",NULL )
97		, SchemaEntry("ifcionconcentrationmeasure",NULL )
98		, SchemaEntry("ifcobjectreferenceselect",NULL )
99		, SchemaEntry("ifcclassificationnotationselect",NULL )
100		, SchemaEntry("ifcbsplinecurveform",NULL )
101		, SchemaEntry("ifcelementcompositionenum",NULL )
102		, SchemaEntry("ifcdraughtingcalloutelement",NULL )
103		, SchemaEntry("ifcfillstyleselect",NULL )
104		, SchemaEntry("ifcheatfluxdensitymeasure",NULL )
105		, SchemaEntry("ifcgeometricprojectionenum",NULL )
106		, SchemaEntry("ifcfontvariant",NULL )
107		, SchemaEntry("ifcthermalresistancemeasure",NULL )
108		, SchemaEntry("ifcreflectancemethodenum",NULL )
109		, SchemaEntry("ifcslabtypeenum",NULL )
110		, SchemaEntry("ifcpositiveratiomeasure",NULL )
111		, SchemaEntry("ifcinternalorexternalenum",NULL )
112		, SchemaEntry("ifcdimensionextentusage",NULL )
113		, SchemaEntry("ifcpipefittingtypeenum",NULL )
114		, SchemaEntry("ifcsanitaryterminaltypeenum",NULL )
115		, SchemaEntry("ifcminuteinhour",NULL )
116		, SchemaEntry("ifcwalltypeenum",NULL )
117		, SchemaEntry("ifcmolecularweightmeasure",NULL )
118		, SchemaEntry("ifcunitaryequipmenttypeenum",NULL )
119		, SchemaEntry("ifcproceduretypeenum",NULL )
120		, SchemaEntry("ifcdistributionchamberelementtypeenum",NULL )
121		, SchemaEntry("ifctextpath",NULL )
122		, SchemaEntry("ifccostscheduletypeenum",NULL )
123		, SchemaEntry("ifcshell",NULL )
124		, SchemaEntry("ifclinearmomentmeasure",NULL )
125		, SchemaEntry("ifcelectriccurrentmeasure",NULL )
126		, SchemaEntry("ifcdaylightsavinghour",NULL )
127		, SchemaEntry("ifcnormalisedratiomeasure",NULL )
128		, SchemaEntry("ifcfantypeenum",NULL )
129		, SchemaEntry("ifccontextdependentmeasure",NULL )
130		, SchemaEntry("ifcaheadorbehind",NULL )
131		, SchemaEntry("ifcfontstyle",NULL )
132		, SchemaEntry("ifccooledbeamtypeenum",NULL )
133		, SchemaEntry("ifcsurfacestyleelementselect",NULL )
134		, SchemaEntry("ifcyearnumber",NULL )
135		, SchemaEntry("ifclabel",NULL )
136		, SchemaEntry("ifctimestamp",NULL )
137		, SchemaEntry("ifcfiresuppressionterminaltypeenum",NULL )
138		, SchemaEntry("ifcdocumentconfidentialityenum",NULL )
139		, SchemaEntry("ifccolourorfactor",NULL )
140		, SchemaEntry("ifcairterminalboxtypeenum",NULL )
141		, SchemaEntry("ifcnumericmeasure",NULL )
142		, SchemaEntry("ifcderivedunitenum",NULL )
143		, SchemaEntry("ifccurveoredgecurve",NULL )
144		, SchemaEntry("ifclightemissionsourceenum",NULL )
145		, SchemaEntry("ifckinematicviscositymeasure",NULL )
146		, SchemaEntry("ifcboxalignment",NULL )
147		, SchemaEntry("ifcdocumentselect",NULL )
148		, SchemaEntry("ifccablecarrierfittingtypeenum",NULL )
149		, SchemaEntry("ifcpumptypeenum",NULL )
150		, SchemaEntry("ifchourinday",NULL )
151		, SchemaEntry("ifcprojectorderrecordtypeenum",NULL )
152		, SchemaEntry("ifcwindowstyleconstructionenum",NULL )
153		, SchemaEntry("ifcpresentationstyleselect",NULL )
154		, SchemaEntry("ifccablesegmenttypeenum",NULL )
155		, SchemaEntry("ifcwasteterminaltypeenum",NULL )
156		, SchemaEntry("ifcisothermalmoisturecapacitymeasure",NULL )
157		, SchemaEntry("ifcidentifier",NULL )
158		, SchemaEntry("ifcradioactivitymeasure",NULL )
159		, SchemaEntry("ifcsymbolstyleselect",NULL )
160		, SchemaEntry("ifcrooftypeenum",NULL )
161		, SchemaEntry("ifcreal",NULL )
162		, SchemaEntry("ifcroleenum",NULL )
163		, SchemaEntry("ifcmeasurevalue",NULL )
164		, SchemaEntry("ifcpiletypeenum",NULL )
165		, SchemaEntry("ifcelectriccurrentenum",NULL )
166		, SchemaEntry("ifctexttransformation",NULL )
167		, SchemaEntry("ifcfiltertypeenum",NULL )
168		, SchemaEntry("ifctransformertypeenum",NULL )
169		, SchemaEntry("ifcsurfaceside",NULL )
170		, SchemaEntry("ifcthermaltransmittancemeasure",NULL )
171		, SchemaEntry("ifctubebundletypeenum",NULL )
172		, SchemaEntry("ifclightfixturetypeenum",NULL )
173		, SchemaEntry("ifcinductancemeasure",NULL )
174		, SchemaEntry("ifcglobalorlocalenum",NULL )
175		, SchemaEntry("ifcoutlettypeenum",NULL )
176		, SchemaEntry("ifcworkcontroltypeenum",NULL )
177		, SchemaEntry("ifcwarpingmomentmeasure",NULL )
178		, SchemaEntry("ifcdynamicviscositymeasure",NULL )
179		, SchemaEntry("ifcenergysequenceenum",NULL )
180		, SchemaEntry("ifcfillareastyletileshapeselect",NULL )
181		, SchemaEntry("ifcpointorvertexpoint",NULL )
182		, SchemaEntry("ifcvibrationisolatortypeenum",NULL )
183		, SchemaEntry("ifctanktypeenum",NULL )
184		, SchemaEntry("ifctimeseriesdatatypeenum",NULL )
185		, SchemaEntry("ifcsurfacetextureenum",NULL )
186		, SchemaEntry("ifcaddresstypeenum",NULL )
187		, SchemaEntry("ifcchillertypeenum",NULL )
188		, SchemaEntry("ifccomplexnumber",NULL )
189		, SchemaEntry("ifclightdistributioncurveenum",NULL )
190		, SchemaEntry("ifcreinforcingbarroleenum",NULL )
191		, SchemaEntry("ifcresourceconsumptionenum",NULL )
192		, SchemaEntry("ifccsgselect",NULL )
193		, SchemaEntry("ifcmodulusoflinearsubgradereactionmeasure",NULL )
194		, SchemaEntry("ifcevaporatortypeenum",NULL )
195		, SchemaEntry("ifctimeseriesscheduletypeenum",NULL )
196		, SchemaEntry("ifcdayinmonthnumber",NULL )
197		, SchemaEntry("ifcelectricmotortypeenum",NULL )
198		, SchemaEntry("ifcthermalconductivitymeasure",NULL )
199		, SchemaEntry("ifcenergymeasure",NULL )
200		, SchemaEntry("ifcrotationalstiffnessmeasure",NULL )
201		, SchemaEntry("ifcderivedmeasurevalue",NULL )
202		, SchemaEntry("ifcdoorpaneloperationenum",NULL )
203		, SchemaEntry("ifccurvestylefontselect",NULL )
204		, SchemaEntry("ifcwindowpaneloperationenum",NULL )
205		, SchemaEntry("ifcdataoriginenum",NULL )
206		, SchemaEntry("ifcstairtypeenum",NULL )
207		, SchemaEntry("ifcrailingtypeenum",NULL )
208		, SchemaEntry("ifcpowermeasure",NULL )
209		, SchemaEntry("ifcstackterminaltypeenum",NULL )
210		, SchemaEntry("ifchatchlinedistanceselect",NULL )
211		, SchemaEntry("ifctrimmingselect",NULL )
212		, SchemaEntry("ifcthermalexpansioncoefficientmeasure",NULL )
213		, SchemaEntry("ifclightdistributiondatasourceselect",NULL )
214		, SchemaEntry("ifctorquemeasure",NULL )
215		, SchemaEntry("ifcmassperlengthmeasure",NULL )
216		, SchemaEntry("ifcvalvetypeenum",NULL )
217		, SchemaEntry("ifcwindowpanelpositionenum",NULL )
218		, SchemaEntry("ifcsurfaceorfacesurface",NULL )
219		, SchemaEntry("ifcpropertysourceenum",NULL )
220		, SchemaEntry("ifccablecarriersegmenttypeenum",NULL )
221		, SchemaEntry("ifccountmeasure",NULL )
222		, SchemaEntry("ifcfontweight",NULL )
223		, SchemaEntry("ifcphysicalorvirtualenum",NULL )
224		, SchemaEntry("ifcspacetypeenum",NULL )
225		, SchemaEntry("ifcvolumetricflowratemeasure",NULL )
226		, SchemaEntry("ifcluminousfluxmeasure",NULL )
227		, SchemaEntry("ifcevaporativecoolertypeenum",NULL )
228		, SchemaEntry("ifclayereditem",NULL )
229		, SchemaEntry("ifcmodulusofsubgradereactionmeasure",NULL )
230		, SchemaEntry("ifcheatexchangertypeenum",NULL )
231		, SchemaEntry("ifcprotectivedevicetypeenum",NULL )
232		, SchemaEntry("ifcdampertypeenum",NULL )
233		, SchemaEntry("ifccontrollertypeenum",NULL )
234		, SchemaEntry("ifcmassflowratemeasure",NULL )
235		, SchemaEntry("ifcassemblyplaceenum",NULL )
236		, SchemaEntry("ifcareameasure",NULL )
237		, SchemaEntry("ifcservicelifefactortypeenum",NULL )
238		, SchemaEntry("ifcvolumemeasure",NULL )
239	304	, SchemaEntry("ifcbeamtypeenum",NULL )
240	305	, SchemaEntry("ifcstateenum",NULL )
241		, SchemaEntry("ifcspaceheatertypeenum",NULL )
242		, SchemaEntry("ifcsectiontypeenum",NULL )
243		, SchemaEntry("ifcfootingtypeenum",NULL )
244		, SchemaEntry("ifcmonetarymeasure",NULL )
245		, SchemaEntry("ifcloadgrouptypeenum",NULL )
246		, SchemaEntry("ifcelectricgeneratortypeenum",NULL )
247		, SchemaEntry("ifcflowmetertypeenum",NULL )
248		, SchemaEntry("ifcmaterialselect",NULL )
	306	, SchemaEntry("ifcsiprefix",NULL )
	307	, SchemaEntry("ifcnumericmeasure",NULL )
	308	, SchemaEntry("ifcoutlettypeenum",NULL )
	309	, SchemaEntry("ifccompoundplaneanglemeasure",NULL )
	310	, SchemaEntry("ifcservicelifefactortypeenum",NULL )
	311	, SchemaEntry("ifclogicaloperatorenum",NULL )
	312	, SchemaEntry("ifcbooleanoperand",NULL )
	313	, SchemaEntry("ifcobjectreferenceselect",NULL )
	314	, SchemaEntry("ifccooledbeamtypeenum",NULL )
	315	, SchemaEntry("ifcductsilencertypeenum",NULL )
	316	, SchemaEntry("ifcsectionalareaintegralmeasure",NULL )
	317	, SchemaEntry("ifcfontvariant",NULL )
	318	, SchemaEntry("ifcvolumetricflowratemeasure",NULL )
	319	, SchemaEntry("ifcplatetypeenum",NULL )
	320	, SchemaEntry("ifcenvironmentalimpactcategoryenum",NULL )
	321	, SchemaEntry("ifcvibrationisolatortypeenum",NULL )
	322	, SchemaEntry("ifcthermodynamictemperaturemeasure",NULL )
	323	, SchemaEntry("ifcrotationalmassmeasure",NULL )
	324	, SchemaEntry("ifcsecondinminute",NULL )
	325	, SchemaEntry("ifcdayinmonthnumber",NULL )
	326	, SchemaEntry("ifcdimensioncount",NULL )
	327	, SchemaEntry("ifcwindowstyleoperationenum",NULL )
	328	, SchemaEntry("ifcthermalresistancemeasure",NULL )
	329	, SchemaEntry("ifcmeasurevalue",NULL )
	330	, SchemaEntry("ifcwindowpaneloperationenum",NULL )
	331	, SchemaEntry("ifcchillertypeenum",NULL )
	332	, SchemaEntry("ifcpositiveratiomeasure",NULL )
	333	, SchemaEntry("ifcinteger",NULL )
	334	, SchemaEntry("ifclogical",NULL )
	335	, SchemaEntry("ifcjunctionboxtypeenum",NULL )
	336	, SchemaEntry("ifcaddresstypeenum",NULL )
	337	, SchemaEntry("ifcwasteterminaltypeenum",NULL )
	338	, SchemaEntry("ifctrimmingselect",NULL )
	339	, SchemaEntry("ifclightemissionsourceenum",NULL )
	340	, SchemaEntry("ifcsoundscaleenum",NULL )
	341	, SchemaEntry("ifcluminousfluxmeasure",NULL )
	342	, SchemaEntry("ifcelectricresistancemeasure",NULL )
	343	, SchemaEntry("ifcintegercountratemeasure",NULL )
	344	, SchemaEntry("ifcphysicalorvirtualenum",NULL )
	345	, SchemaEntry("ifcmolecularweightmeasure",NULL )
	346	, SchemaEntry("ifcprofiletypeenum",NULL )
	347	, SchemaEntry("ifcboxalignment",NULL )
	348	, SchemaEntry("ifcglobalorlocalenum",NULL )
	349	, SchemaEntry("ifcspecularroughness",NULL )
	350	, SchemaEntry("ifclamptypeenum",NULL )
	351	, SchemaEntry("ifcpiletypeenum",NULL )
	352	, SchemaEntry("ifcelectriccurrentmeasure",NULL )
	353	, SchemaEntry("ifcfantypeenum",NULL )
	354	, SchemaEntry("ifcsurfaceorfacesurface",NULL )
	355	, SchemaEntry("ifcpipefittingtypeenum",NULL )
	356	, SchemaEntry("ifctanktypeenum",NULL )
	357	, SchemaEntry("ifccurvefontorscaledcurvefontselect",NULL )
	358	, SchemaEntry("ifcwindowstyleconstructionenum",NULL )
	359	, SchemaEntry("ifcairterminalboxtypeenum",NULL )
	360	, SchemaEntry("ifcstairflighttypeenum",NULL )
	361	, SchemaEntry("ifcluminousintensitymeasure",NULL )
	362	, SchemaEntry("ifcmotorconnectiontypeenum",NULL )
	363	, SchemaEntry("ifcplaneanglemeasure",NULL )
	364	, SchemaEntry("ifcactuatortypeenum",NULL )
	365	, SchemaEntry("ifccolumntypeenum",NULL )
	366	, SchemaEntry("ifctextfontselect",NULL )
	367	, SchemaEntry("ifcdoorpanelpositionenum",NULL )
	368	, SchemaEntry("ifccoiltypeenum",NULL )
	369	, SchemaEntry("ifcangularvelocitymeasure",NULL )
249	370	, SchemaEntry("ifcanalysismodeltypeenum",NULL )
250		, SchemaEntry("ifctemperaturegradientmeasure",NULL )
251		, SchemaEntry("ifcmodulusofrotationalsubgradereactionmeasure",NULL )
252		, SchemaEntry("ifccolour",NULL )
253		, SchemaEntry("ifccurtainwalltypeenum",NULL )
254		, SchemaEntry("ifcmetricvalueselect",NULL )
255		, SchemaEntry("ifctextalignment",NULL )
256		, SchemaEntry("ifcdoorpanelpositionenum",NULL )
257		, SchemaEntry("ifcplatetypeenum",NULL )
258		, SchemaEntry("ifcsectionalareaintegralmeasure",NULL )
259		, SchemaEntry("ifcpresentabletext",NULL )
260		, SchemaEntry("ifcvaporpermeabilitymeasure",NULL )
261		, SchemaEntry("ifcstructuralsurfacetypeenum",NULL )
262		, SchemaEntry("ifclinearvelocitymeasure",NULL )
263		, SchemaEntry("ifcintegercountratemeasure",NULL )
264		, SchemaEntry("ifcairtoairheatrecoverytypeenum",NULL )
265		, SchemaEntry("ifcdocumentstatusenum",NULL )
266		, SchemaEntry("ifclengthmeasure",NULL )
267		, SchemaEntry("ifcplanarforcemeasure",NULL )
268		, SchemaEntry("ifcbooleanoperand",NULL )
269		, SchemaEntry("ifcinteger",NULL )
270		, SchemaEntry("ifcramptypeenum",NULL )
271		, SchemaEntry("ifcactorselect",NULL )
272		, SchemaEntry("ifcelectricchargemeasure",NULL )
273		, SchemaEntry("ifcgeometricsetselect",NULL )
274		, SchemaEntry("ifcconnectiontypeenum",NULL )
275		, SchemaEntry("ifcvalue",NULL )
276		, SchemaEntry("ifccoolingtowertypeenum",NULL )
277		, SchemaEntry("ifcplaneanglemeasure",NULL )
278		, SchemaEntry("ifcswitchingdevicetypeenum",NULL )
279		, SchemaEntry("ifcflowdirectionenum",NULL )
280		, SchemaEntry("ifcthermalloadsourceenum",NULL )
281		, SchemaEntry("ifctextfontselect",NULL )
282		, SchemaEntry("ifcspecularhighlightselect",NULL )
283		, SchemaEntry("ifcanalysistheorytypeenum",NULL )
284		, SchemaEntry("ifctextfontname",NULL )
285		, SchemaEntry("ifcelectricvoltagemeasure",NULL )
286		, SchemaEntry("ifctendontypeenum",NULL )
287		, SchemaEntry("ifcsoundpressuremeasure",NULL )
	371	, SchemaEntry("ifclibraryselect",NULL )
	372	, SchemaEntry("ifcforcemeasure",NULL )
	373	, SchemaEntry("ifcfillareastyletileshapeselect",NULL )
	374	, SchemaEntry("ifcelectricappliancetypeenum",NULL )
	375	, SchemaEntry("ifcsurfacetextureenum",NULL )
	376	, SchemaEntry("ifccharacterstyleselect",NULL )
	377	, SchemaEntry("ifcenergymeasure",NULL )
	378	, SchemaEntry("ifcreal",NULL )
	379	, SchemaEntry("ifccompressortypeenum",NULL )
288	380	, SchemaEntry("ifcelectricdistributionpointfunctionenum",NULL )
289		, SchemaEntry("ifcspecularroughness",NULL )
290		, SchemaEntry("ifcactiontypeenum",NULL )
291		, SchemaEntry("ifcreinforcingbarsurfaceenum",NULL )
292		, SchemaEntry("ifchumidifiertypeenum",NULL )
293		, SchemaEntry("ifcilluminancemeasure",NULL )
294		, SchemaEntry("ifclibraryselect",NULL )
295		, SchemaEntry("ifctext",NULL )
296		, SchemaEntry("ifclayersetdirectionenum",NULL )
297		, SchemaEntry("ifcboilertypeenum",NULL )
298		, SchemaEntry("ifctimemeasure",NULL )
299		, SchemaEntry("ifcaccelerationmeasure",NULL )
300		, SchemaEntry("ifcelectricflowstoragedevicetypeenum",NULL )
301		, SchemaEntry("ifcluminousintensitymeasure",NULL )
302		, SchemaEntry("ifcdefinedsymbolselect",NULL )
303		, SchemaEntry("ifcunitenum",NULL )
304		, SchemaEntry("ifcinventorytypeenum",NULL )
305		, SchemaEntry("ifcstructuralactivityassignmentselect",NULL )
306		, SchemaEntry("ifcelementassemblytypeenum",NULL )
307		, SchemaEntry("ifcservicelifetypeenum",NULL )
308		, SchemaEntry("ifccoveringtypeenum",NULL )
309		, SchemaEntry("ifcstairflighttypeenum",NULL )
310		, SchemaEntry("ifcsiprefix",NULL )
311		, SchemaEntry("ifcelectriccapacitancemeasure",NULL )
312		, SchemaEntry("ifcflowinstrumenttypeenum",NULL )
313		, SchemaEntry("ifcthermodynamictemperaturemeasure",NULL )
314		, SchemaEntry("ifcgloballyuniqueid",NULL )
315		, SchemaEntry("ifclamptypeenum",NULL )
316		, SchemaEntry("ifcmagneticfluxmeasure",NULL )
317		, SchemaEntry("ifcsolidanglemeasure",NULL )
318		, SchemaEntry("ifcfrequencymeasure",NULL )
319		, SchemaEntry("ifctransportelementtypeenum",NULL )
320		, SchemaEntry("ifcsoundscaleenum",NULL )
321		, SchemaEntry("ifcphmeasure",NULL )
322		, SchemaEntry("ifcactuatortypeenum",NULL )
323		, SchemaEntry("ifcpositiveplaneanglemeasure",NULL )
324		, SchemaEntry("ifcappliedvalueselect",NULL )
325		, SchemaEntry("ifcsecondinminute",NULL )
326		, SchemaEntry("ifcductsegmenttypeenum",NULL )
327		, SchemaEntry("ifcthermaladmittancemeasure",NULL )
328		, SchemaEntry("ifcspecularexponent",NULL )
329		, SchemaEntry("ifcdatetimeselect",NULL )
330		, SchemaEntry("ifctransitioncode",NULL )
331		, SchemaEntry("ifcdimensioncount",NULL )
332		, SchemaEntry("ifclinearstiffnessmeasure",NULL )
333		, SchemaEntry("ifccompoundplaneanglemeasure",NULL )
334		, SchemaEntry("ifcelectricappliancetypeenum",NULL )
335		, SchemaEntry("ifcprofiletypeenum",NULL )
336		, SchemaEntry("ifccurvefontorscaledcurvefontselect",NULL )
337		, SchemaEntry("ifcprojectedortruelengthenum",NULL )
338		, SchemaEntry("ifcabsorbeddosemeasure",NULL )
339		, SchemaEntry("ifcparametervalue",NULL )
340		, SchemaEntry("ifcpileconstructionenum",NULL )
341		, SchemaEntry("ifcmotorconnectiontypeenum",NULL )
342		, SchemaEntry("ifcoccupanttypeenum",NULL )
343		, SchemaEntry("ifcunit",NULL )
344		, SchemaEntry("ifclinearforcemeasure",NULL )
345		, SchemaEntry("ifccondensertypeenum",NULL )
346		, SchemaEntry("ifcdescriptivemeasure",NULL )
347		, SchemaEntry("ifcmomentofinertiameasure",NULL )
348		, SchemaEntry("ifcdoseequivalentmeasure",NULL )
349		, SchemaEntry("ifcorientationselect",NULL )
350		, SchemaEntry("ifclogical",NULL )
351		, SchemaEntry("ifcsizeselect",NULL )
352		, SchemaEntry("ifcenvironmentalimpactcategoryenum",NULL )
353		, SchemaEntry("ifclogicaloperatorenum",NULL )
354		, SchemaEntry("ifccompressortypeenum",NULL )
355		, SchemaEntry("ifcbenchmarkenum",NULL )
356		, SchemaEntry("ifcratiomeasure",NULL )
357		, SchemaEntry("ifcvectorordirection",NULL )
358		, SchemaEntry("ifcconstraintenum",NULL )
359		, SchemaEntry("ifcalarmtypeenum",NULL )
360		, SchemaEntry("ifcluminousintensitydistributionmeasure",NULL )
361		, SchemaEntry("ifcarithmeticoperatorenum",NULL )
362		, SchemaEntry("ifcaxis2placement",NULL )
363		, SchemaEntry("ifcforcemeasure",NULL )
364		, SchemaEntry("ifctrimmingpreference",NULL )
365		, SchemaEntry("ifcelectricresistancemeasure",NULL )
366		, SchemaEntry("ifcwarpingconstantmeasure",NULL )
367		, SchemaEntry("ifcpipesegmenttypeenum",NULL )
368		, SchemaEntry("ifcconditioncriterionselect",NULL )
369		, SchemaEntry("ifcshearmodulusmeasure",NULL )
370		, SchemaEntry("ifcpressuremeasure",NULL )
371		, SchemaEntry("ifcductsilencertypeenum",NULL )
372		, SchemaEntry("ifcboolean",NULL )
373		, SchemaEntry("ifcsectionmodulusmeasure",NULL )
374		, SchemaEntry("ifcchangeactionenum",NULL )
375		, SchemaEntry("ifccoiltypeenum",NULL )
376		, SchemaEntry("ifcmassmeasure",NULL )
377		, SchemaEntry("ifcstructuralcurvetypeenum",NULL )
378		, SchemaEntry("ifcpermeablecoveringoperationenum",NULL )
379		, SchemaEntry("ifcmagneticfluxdensitymeasure",NULL )
380		, SchemaEntry("ifcmoisturediffusivitymeasure",NULL )
381	381	, SchemaEntry("ifcroot",&STEP::ObjectHelper<IfcRoot,4>::Construct )
382	382	, SchemaEntry("ifcobjectdefinition",&STEP::ObjectHelper<IfcObjectDefinition,0>::Construct )
383	383	, SchemaEntry("ifctypeobject",&STEP::ObjectHelper<IfcTypeObject,2>::Construct )
384	384	, SchemaEntry("ifctypeproduct",&STEP::ObjectHelper<IfcTypeProduct,2>::Construct )
385	385	, SchemaEntry("ifcelementtype",&STEP::ObjectHelper<IfcElementType,1>::Construct )
386		, SchemaEntry("ifcfurnishingelementtype",&STEP::ObjectHelper<IfcFurnishingElementType,0>::Construct )
387		, SchemaEntry("ifcfurnituretype",&STEP::ObjectHelper<IfcFurnitureType,1>::Construct )
	386	, SchemaEntry("ifcdistributionelementtype",&STEP::ObjectHelper<IfcDistributionElementType,0>::Construct )
	387	, SchemaEntry("ifcdistributionflowelementtype",&STEP::ObjectHelper<IfcDistributionFlowElementType,0>::Construct )
	388	, SchemaEntry("ifcflowcontrollertype",&STEP::ObjectHelper<IfcFlowControllerType,0>::Construct )
	389	, SchemaEntry("ifcelectrictimecontroltype",&STEP::ObjectHelper<IfcElectricTimeControlType,1>::Construct )
	390	, SchemaEntry("ifcrepresentation",&STEP::ObjectHelper<IfcRepresentation,4>::Construct )
	391	, SchemaEntry("ifcshapemodel",&STEP::ObjectHelper<IfcShapeModel,0>::Construct )
	392	, SchemaEntry("ifctopologyrepresentation",&STEP::ObjectHelper<IfcTopologyRepresentation,0>::Construct )
	393	, SchemaEntry("ifcrelationship",&STEP::ObjectHelper<IfcRelationship,0>::Construct )
	394	, SchemaEntry("ifcrelconnects",&STEP::ObjectHelper<IfcRelConnects,0>::Construct )
	395	, SchemaEntry("ifcrelcoversspaces",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	396	, SchemaEntry("ifcflowfittingtype",&STEP::ObjectHelper<IfcFlowFittingType,0>::Construct )
	397	, SchemaEntry("ifccablecarrierfittingtype",&STEP::ObjectHelper<IfcCableCarrierFittingType,1>::Construct )
	398	, SchemaEntry("ifcstructuralconnectioncondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	399	, SchemaEntry("ifcslippageconnectioncondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	400	, SchemaEntry("ifcenergyconversiondevicetype",&STEP::ObjectHelper<IfcEnergyConversionDeviceType,0>::Construct )
	401	, SchemaEntry("ifccoiltype",&STEP::ObjectHelper<IfcCoilType,1>::Construct )
388	402	, SchemaEntry("ifcobject",&STEP::ObjectHelper<IfcObject,1>::Construct )
389		, SchemaEntry("ifcproduct",&STEP::ObjectHelper<IfcProduct,2>::Construct )
390		, SchemaEntry("ifcgrid",&STEP::ObjectHelper<IfcGrid,3>::Construct )
	403	, SchemaEntry("ifccontrol",&STEP::ObjectHelper<IfcControl,0>::Construct )
	404	, SchemaEntry("ifcperformancehistory",&STEP::ObjectHelper<IfcPerformanceHistory,1>::Construct )
391	405	, SchemaEntry("ifcrepresentationitem",&STEP::ObjectHelper<IfcRepresentationItem,0>::Construct )
392	406	, SchemaEntry("ifcgeometricrepresentationitem",&STEP::ObjectHelper<IfcGeometricRepresentationItem,0>::Construct )
393		, SchemaEntry("ifconedirectionrepeatfactor",&STEP::ObjectHelper<IfcOneDirectionRepeatFactor,1>::Construct )
394		, SchemaEntry("ifctwodirectionrepeatfactor",&STEP::ObjectHelper<IfcTwoDirectionRepeatFactor,1>::Construct )
	407	, SchemaEntry("ifctextliteral",&STEP::ObjectHelper<IfcTextLiteral,3>::Construct )
	408	, SchemaEntry("ifctextliteralwithextent",&STEP::ObjectHelper<IfcTextLiteralWithExtent,2>::Construct )
	409	, SchemaEntry("ifcproductrepresentation",&STEP::ObjectHelper<IfcProductRepresentation,3>::Construct )
	410	, SchemaEntry("ifcproduct",&STEP::ObjectHelper<IfcProduct,2>::Construct )
395	411	, SchemaEntry("ifcelement",&STEP::ObjectHelper<IfcElement,1>::Construct )
396		, SchemaEntry("ifcelementcomponent",&STEP::ObjectHelper<IfcElementComponent,0>::Construct )
397		, SchemaEntry("ifclocaltime",&STEP::ObjectHelper<NotImplemented,0>::Construct )
398		, SchemaEntry("ifcspatialstructureelementtype",&STEP::ObjectHelper<IfcSpatialStructureElementType,0>::Construct )
399		, SchemaEntry("ifccontrol",&STEP::ObjectHelper<IfcControl,0>::Construct )
400		, SchemaEntry("ifcactionrequest",&STEP::ObjectHelper<IfcActionRequest,1>::Construct )
401		, SchemaEntry("ifctexturevertex",&STEP::ObjectHelper<NotImplemented,0>::Construct )
402		, SchemaEntry("ifcpropertydefinition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
403		, SchemaEntry("ifcpropertysetdefinition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
404		, SchemaEntry("ifcfluidflowproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
405		, SchemaEntry("ifcdocumentinformation",&STEP::ObjectHelper<NotImplemented,0>::Construct )
406		, SchemaEntry("ifccalendardate",&STEP::ObjectHelper<NotImplemented,0>::Construct )
407		, SchemaEntry("ifcdistributionelementtype",&STEP::ObjectHelper<IfcDistributionElementType,0>::Construct )
408		, SchemaEntry("ifcdistributionflowelementtype",&STEP::ObjectHelper<IfcDistributionFlowElementType,0>::Construct )
409		, SchemaEntry("ifcenergyconversiondevicetype",&STEP::ObjectHelper<IfcEnergyConversionDeviceType,0>::Construct )
410		, SchemaEntry("ifccooledbeamtype",&STEP::ObjectHelper<IfcCooledBeamType,1>::Construct )
411		, SchemaEntry("ifccsgprimitive3d",&STEP::ObjectHelper<IfcCsgPrimitive3D,1>::Construct )
412		, SchemaEntry("ifcrectangularpyramid",&STEP::ObjectHelper<IfcRectangularPyramid,3>::Construct )
413		, SchemaEntry("ifcstructuralload",&STEP::ObjectHelper<NotImplemented,0>::Construct )
414		, SchemaEntry("ifcstructuralloadstatic",&STEP::ObjectHelper<NotImplemented,0>::Construct )
415		, SchemaEntry("ifcstructuralloadlinearforce",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	412	, SchemaEntry("ifcdistributionelement",&STEP::ObjectHelper<IfcDistributionElement,0>::Construct )
	413	, SchemaEntry("ifcdistributionflowelement",&STEP::ObjectHelper<IfcDistributionFlowElement,0>::Construct )
	414	, SchemaEntry("ifccurve",&STEP::ObjectHelper<IfcCurve,0>::Construct )
	415	, SchemaEntry("ifcboundedcurve",&STEP::ObjectHelper<IfcBoundedCurve,0>::Construct )
	416	, SchemaEntry("ifccompositecurve",&STEP::ObjectHelper<IfcCompositeCurve,2>::Construct )
	417	, SchemaEntry("ifc2dcompositecurve",&STEP::ObjectHelper<Ifc2DCompositeCurve,0>::Construct )
	418	, SchemaEntry("ifcboundarycondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	419	, SchemaEntry("ifcboundaryfacecondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	420	, SchemaEntry("ifccartesiantransformationoperator",&STEP::ObjectHelper<IfcCartesianTransformationOperator,4>::Construct )
	421	, SchemaEntry("ifccartesiantransformationoperator3d",&STEP::ObjectHelper<IfcCartesianTransformationOperator3D,1>::Construct )
	422	, SchemaEntry("ifcproperty",&STEP::ObjectHelper<IfcProperty,2>::Construct )
	423	, SchemaEntry("ifcsimpleproperty",&STEP::ObjectHelper<IfcSimpleProperty,0>::Construct )
	424	, SchemaEntry("ifcpropertyenumeratedvalue",&STEP::ObjectHelper<IfcPropertyEnumeratedValue,2>::Construct )
	425	, SchemaEntry("ifcpresentationlayerassignment",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	426	, SchemaEntry("ifcpresentationlayerwithstyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	427	, SchemaEntry("ifcbuildingelementtype",&STEP::ObjectHelper<IfcBuildingElementType,0>::Construct )
	428	, SchemaEntry("ifcstairflighttype",&STEP::ObjectHelper<IfcStairFlightType,1>::Construct )
416	429	, SchemaEntry("ifcsurface",&STEP::ObjectHelper<IfcSurface,0>::Construct )
417		, SchemaEntry("ifcboundedsurface",&STEP::ObjectHelper<IfcBoundedSurface,0>::Construct )
418		, SchemaEntry("ifcrectangulartrimmedsurface",&STEP::ObjectHelper<IfcRectangularTrimmedSurface,7>::Construct )
419		, SchemaEntry("ifcphysicalquantity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
420		, SchemaEntry("ifcphysicalsimplequantity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
421		, SchemaEntry("ifcquantityvolume",&STEP::ObjectHelper<NotImplemented,0>::Construct )
422		, SchemaEntry("ifcquantityarea",&STEP::ObjectHelper<NotImplemented,0>::Construct )
423		, SchemaEntry("ifcgroup",&STEP::ObjectHelper<IfcGroup,0>::Construct )
424		, SchemaEntry("ifcrelationship",&STEP::ObjectHelper<IfcRelationship,0>::Construct )
425		, SchemaEntry("ifcrelassigns",&STEP::ObjectHelper<NotImplemented,0>::Construct )
426		, SchemaEntry("ifcrelassignstoactor",&STEP::ObjectHelper<NotImplemented,0>::Construct )
427		, SchemaEntry("ifchalfspacesolid",&STEP::ObjectHelper<IfcHalfSpaceSolid,2>::Construct )
428		, SchemaEntry("ifcpolygonalboundedhalfspace",&STEP::ObjectHelper<IfcPolygonalBoundedHalfSpace,2>::Construct )
429		, SchemaEntry("ifcenergyproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
430		, SchemaEntry("ifcairtoairheatrecoverytype",&STEP::ObjectHelper<IfcAirToAirHeatRecoveryType,1>::Construct )
431		, SchemaEntry("ifcflowfittingtype",&STEP::ObjectHelper<IfcFlowFittingType,0>::Construct )
432		, SchemaEntry("ifcpipefittingtype",&STEP::ObjectHelper<IfcPipeFittingType,1>::Construct )
433		, SchemaEntry("ifcrepresentation",&STEP::ObjectHelper<IfcRepresentation,4>::Construct )
434		, SchemaEntry("ifcstylemodel",&STEP::ObjectHelper<IfcStyleModel,0>::Construct )
435		, SchemaEntry("ifcstyledrepresentation",&STEP::ObjectHelper<IfcStyledRepresentation,0>::Construct )
436		, SchemaEntry("ifcrelassignstocontrol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
437		, SchemaEntry("ifcrelassignstoprojectorder",&STEP::ObjectHelper<NotImplemented,0>::Construct )
438		, SchemaEntry("ifcdimensionalexponents",&STEP::ObjectHelper<NotImplemented,0>::Construct )
439		, SchemaEntry("ifcbooleanresult",&STEP::ObjectHelper<IfcBooleanResult,3>::Construct )
440		, SchemaEntry("ifcsoundproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
441		, SchemaEntry("ifcfeatureelement",&STEP::ObjectHelper<IfcFeatureElement,0>::Construct )
442		, SchemaEntry("ifcfeatureelementsubtraction",&STEP::ObjectHelper<IfcFeatureElementSubtraction,0>::Construct )
443		, SchemaEntry("ifcopeningelement",&STEP::ObjectHelper<IfcOpeningElement,0>::Construct )
444		, SchemaEntry("ifcconditioncriterion",&STEP::ObjectHelper<IfcConditionCriterion,2>::Construct )
445		, SchemaEntry("ifcflowterminaltype",&STEP::ObjectHelper<IfcFlowTerminalType,0>::Construct )
446		, SchemaEntry("ifcflowcontrollertype",&STEP::ObjectHelper<IfcFlowControllerType,0>::Construct )
447		, SchemaEntry("ifcswitchingdevicetype",&STEP::ObjectHelper<IfcSwitchingDeviceType,1>::Construct )
448		, SchemaEntry("ifcsystem",&STEP::ObjectHelper<IfcSystem,0>::Construct )
449		, SchemaEntry("ifcelectricalcircuit",&STEP::ObjectHelper<IfcElectricalCircuit,0>::Construct )
450		, SchemaEntry("ifcactorrole",&STEP::ObjectHelper<NotImplemented,0>::Construct )
451		, SchemaEntry("ifcdateandtime",&STEP::ObjectHelper<NotImplemented,0>::Construct )
452		, SchemaEntry("ifcdraughtingcalloutrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
453		, SchemaEntry("ifcdimensioncalloutrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
454		, SchemaEntry("ifcderivedunitelement",&STEP::ObjectHelper<NotImplemented,0>::Construct )
455		, SchemaEntry("ifcexternalreference",&STEP::ObjectHelper<NotImplemented,0>::Construct )
456		, SchemaEntry("ifcclassificationreference",&STEP::ObjectHelper<NotImplemented,0>::Construct )
457		, SchemaEntry("ifcunitaryequipmenttype",&STEP::ObjectHelper<IfcUnitaryEquipmentType,1>::Construct )
458		, SchemaEntry("ifcproperty",&STEP::ObjectHelper<NotImplemented,0>::Construct )
459		, SchemaEntry("ifcport",&STEP::ObjectHelper<IfcPort,0>::Construct )
460		, SchemaEntry("ifcaddress",&STEP::ObjectHelper<NotImplemented,0>::Construct )
461		, SchemaEntry("ifcplacement",&STEP::ObjectHelper<IfcPlacement,1>::Construct )
462		, SchemaEntry("ifcpredefineditem",&STEP::ObjectHelper<NotImplemented,0>::Construct )
463		, SchemaEntry("ifcpredefinedcolour",&STEP::ObjectHelper<NotImplemented,0>::Construct )
464		, SchemaEntry("ifcdraughtingpredefinedcolour",&STEP::ObjectHelper<NotImplemented,0>::Construct )
465		, SchemaEntry("ifcprofiledef",&STEP::ObjectHelper<IfcProfileDef,2>::Construct )
466		, SchemaEntry("ifcarbitraryclosedprofiledef",&STEP::ObjectHelper<IfcArbitraryClosedProfileDef,1>::Construct )
467		, SchemaEntry("ifccurve",&STEP::ObjectHelper<IfcCurve,0>::Construct )
468		, SchemaEntry("ifcconic",&STEP::ObjectHelper<IfcConic,1>::Construct )
469		, SchemaEntry("ifccircle",&STEP::ObjectHelper<IfcCircle,1>::Construct )
470		, SchemaEntry("ifcappliedvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
471		, SchemaEntry("ifcenvironmentalimpactvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
472		, SchemaEntry("ifcsimpleproperty",&STEP::ObjectHelper<NotImplemented,0>::Construct )
473		, SchemaEntry("ifcpropertysinglevalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
474	430	, SchemaEntry("ifcelementarysurface",&STEP::ObjectHelper<IfcElementarySurface,1>::Construct )
475	431	, SchemaEntry("ifcplane",&STEP::ObjectHelper<IfcPlane,0>::Construct )
476		, SchemaEntry("ifcpropertyboundedvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
477		, SchemaEntry("ifccostschedule",&STEP::ObjectHelper<IfcCostSchedule,8>::Construct )
478		, SchemaEntry("ifcmonetaryunit",&STEP::ObjectHelper<NotImplemented,0>::Construct )
479		, SchemaEntry("ifcconnectiongeometry",&STEP::ObjectHelper<NotImplemented,0>::Construct )
480		, SchemaEntry("ifcconnectioncurvegeometry",&STEP::ObjectHelper<NotImplemented,0>::Construct )
481		, SchemaEntry("ifcrightcircularcone",&STEP::ObjectHelper<IfcRightCircularCone,2>::Construct )
482		, SchemaEntry("ifcelementassembly",&STEP::ObjectHelper<IfcElementAssembly,2>::Construct )
483		, SchemaEntry("ifcbuildingelement",&STEP::ObjectHelper<IfcBuildingElement,0>::Construct )
484		, SchemaEntry("ifcmember",&STEP::ObjectHelper<IfcMember,0>::Construct )
485		, SchemaEntry("ifcpropertydependencyrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
486		, SchemaEntry("ifcbuildingelementproxy",&STEP::ObjectHelper<IfcBuildingElementProxy,1>::Construct )
487		, SchemaEntry("ifcstructuralactivity",&STEP::ObjectHelper<IfcStructuralActivity,2>::Construct )
488		, SchemaEntry("ifcstructuralaction",&STEP::ObjectHelper<IfcStructuralAction,2>::Construct )
489		, SchemaEntry("ifcstructuralplanaraction",&STEP::ObjectHelper<IfcStructuralPlanarAction,1>::Construct )
490		, SchemaEntry("ifctopologicalrepresentationitem",&STEP::ObjectHelper<IfcTopologicalRepresentationItem,0>::Construct )
491		, SchemaEntry("ifcconnectedfaceset",&STEP::ObjectHelper<IfcConnectedFaceSet,1>::Construct )
492		, SchemaEntry("ifcsweptsurface",&STEP::ObjectHelper<IfcSweptSurface,2>::Construct )
493		, SchemaEntry("ifcsurfaceoflinearextrusion",&STEP::ObjectHelper<IfcSurfaceOfLinearExtrusion,2>::Construct )
494		, SchemaEntry("ifcarbitraryprofiledefwithvoids",&STEP::ObjectHelper<IfcArbitraryProfileDefWithVoids,1>::Construct )
495		, SchemaEntry("ifcprocess",&STEP::ObjectHelper<IfcProcess,0>::Construct )
496		, SchemaEntry("ifcprocedure",&STEP::ObjectHelper<IfcProcedure,3>::Construct )
497		, SchemaEntry("ifccurvestylefontpattern",&STEP::ObjectHelper<NotImplemented,0>::Construct )
498		, SchemaEntry("ifcvector",&STEP::ObjectHelper<IfcVector,2>::Construct )
499		, SchemaEntry("ifcfacebound",&STEP::ObjectHelper<IfcFaceBound,2>::Construct )
500		, SchemaEntry("ifcfaceouterbound",&STEP::ObjectHelper<IfcFaceOuterBound,0>::Construct )
501		, SchemaEntry("ifcfeatureelementaddition",&STEP::ObjectHelper<IfcFeatureElementAddition,0>::Construct )
502		, SchemaEntry("ifcnamedunit",&STEP::ObjectHelper<IfcNamedUnit,2>::Construct )
503		, SchemaEntry("ifcconversionbasedunit",&STEP::ObjectHelper<IfcConversionBasedUnit,2>::Construct )
504		, SchemaEntry("ifcstructuralloadsingleforce",&STEP::ObjectHelper<NotImplemented,0>::Construct )
505		, SchemaEntry("ifcheatexchangertype",&STEP::ObjectHelper<IfcHeatExchangerType,1>::Construct )
506		, SchemaEntry("ifcpresentationstyleassignment",&STEP::ObjectHelper<IfcPresentationStyleAssignment,1>::Construct )
507		, SchemaEntry("ifcflowtreatmentdevicetype",&STEP::ObjectHelper<IfcFlowTreatmentDeviceType,0>::Construct )
508		, SchemaEntry("ifcfiltertype",&STEP::ObjectHelper<IfcFilterType,1>::Construct )
509		, SchemaEntry("ifcresource",&STEP::ObjectHelper<IfcResource,0>::Construct )
510		, SchemaEntry("ifcevaporativecoolertype",&STEP::ObjectHelper<IfcEvaporativeCoolerType,1>::Construct )
511		, SchemaEntry("ifctexturecoordinate",&STEP::ObjectHelper<NotImplemented,0>::Construct )
512		, SchemaEntry("ifctexturecoordinategenerator",&STEP::ObjectHelper<NotImplemented,0>::Construct )
513		, SchemaEntry("ifcoffsetcurve2d",&STEP::ObjectHelper<IfcOffsetCurve2D,3>::Construct )
514		, SchemaEntry("ifcedge",&STEP::ObjectHelper<IfcEdge,2>::Construct )
515		, SchemaEntry("ifcsubedge",&STEP::ObjectHelper<IfcSubedge,1>::Construct )
516		, SchemaEntry("ifcproxy",&STEP::ObjectHelper<IfcProxy,2>::Construct )
517		, SchemaEntry("ifcline",&STEP::ObjectHelper<IfcLine,2>::Construct )
518		, SchemaEntry("ifccolumn",&STEP::ObjectHelper<IfcColumn,0>::Construct )
519		, SchemaEntry("ifcclassificationnotationfacet",&STEP::ObjectHelper<NotImplemented,0>::Construct )
520		, SchemaEntry("ifcobjectplacement",&STEP::ObjectHelper<IfcObjectPlacement,0>::Construct )
521		, SchemaEntry("ifcgridplacement",&STEP::ObjectHelper<IfcGridPlacement,2>::Construct )
522		, SchemaEntry("ifcdistributioncontrolelementtype",&STEP::ObjectHelper<IfcDistributionControlElementType,0>::Construct )
523		, SchemaEntry("ifcstructuralloadsingleforcewarping",&STEP::ObjectHelper<NotImplemented,0>::Construct )
524		, SchemaEntry("ifcexternallydefinedtextfont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
525		, SchemaEntry("ifcrelconnects",&STEP::ObjectHelper<IfcRelConnects,0>::Construct )
526		, SchemaEntry("ifcrelconnectselements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
527		, SchemaEntry("ifcrelconnectswithrealizingelements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
528		, SchemaEntry("ifcconstraintclassificationrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
529		, SchemaEntry("ifcannotation",&STEP::ObjectHelper<IfcAnnotation,0>::Construct )
530		, SchemaEntry("ifcplate",&STEP::ObjectHelper<IfcPlate,0>::Construct )
	432	, SchemaEntry("ifcbooleanresult",&STEP::ObjectHelper<IfcBooleanResult,3>::Construct )
	433	, SchemaEntry("ifcbooleanclippingresult",&STEP::ObjectHelper<IfcBooleanClippingResult,0>::Construct )
531	434	, SchemaEntry("ifcsolidmodel",&STEP::ObjectHelper<IfcSolidModel,0>::Construct )
532	435	, SchemaEntry("ifcmanifoldsolidbrep",&STEP::ObjectHelper<IfcManifoldSolidBrep,1>::Construct )
533		, SchemaEntry("ifcpredefinedcurvefont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
534		, SchemaEntry("ifcboundarycondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
535		, SchemaEntry("ifcboundaryfacecondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
536		, SchemaEntry("ifcflowstoragedevicetype",&STEP::ObjectHelper<IfcFlowStorageDeviceType,0>::Construct )
537		, SchemaEntry("ifcstructuralitem",&STEP::ObjectHelper<IfcStructuralItem,0>::Construct )
538		, SchemaEntry("ifcstructuralmember",&STEP::ObjectHelper<IfcStructuralMember,0>::Construct )
539		, SchemaEntry("ifcstructuralcurvemember",&STEP::ObjectHelper<IfcStructuralCurveMember,1>::Construct )
540		, SchemaEntry("ifcstructuralconnection",&STEP::ObjectHelper<IfcStructuralConnection,1>::Construct )
541		, SchemaEntry("ifcstructuralsurfaceconnection",&STEP::ObjectHelper<IfcStructuralSurfaceConnection,0>::Construct )
542		, SchemaEntry("ifccoiltype",&STEP::ObjectHelper<IfcCoilType,1>::Construct )
543		, SchemaEntry("ifcductfittingtype",&STEP::ObjectHelper<IfcDuctFittingType,1>::Construct )
544		, SchemaEntry("ifcstyleditem",&STEP::ObjectHelper<IfcStyledItem,3>::Construct )
545		, SchemaEntry("ifcannotationoccurrence",&STEP::ObjectHelper<IfcAnnotationOccurrence,0>::Construct )
546		, SchemaEntry("ifcannotationcurveoccurrence",&STEP::ObjectHelper<IfcAnnotationCurveOccurrence,0>::Construct )
547		, SchemaEntry("ifcdimensioncurve",&STEP::ObjectHelper<IfcDimensionCurve,0>::Construct )
548		, SchemaEntry("ifcboundedcurve",&STEP::ObjectHelper<IfcBoundedCurve,0>::Construct )
549		, SchemaEntry("ifcaxis1placement",&STEP::ObjectHelper<IfcAxis1Placement,1>::Construct )
550		, SchemaEntry("ifclightintensitydistribution",&STEP::ObjectHelper<NotImplemented,0>::Construct )
551		, SchemaEntry("ifcpredefinedsymbol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
552		, SchemaEntry("ifcstructuralpointaction",&STEP::ObjectHelper<IfcStructuralPointAction,0>::Construct )
553		, SchemaEntry("ifcspatialstructureelement",&STEP::ObjectHelper<IfcSpatialStructureElement,2>::Construct )
554		, SchemaEntry("ifcspace",&STEP::ObjectHelper<IfcSpace,2>::Construct )
555		, SchemaEntry("ifccontextdependentunit",&STEP::ObjectHelper<IfcContextDependentUnit,1>::Construct )
556		, SchemaEntry("ifcvirtualgridintersection",&STEP::ObjectHelper<NotImplemented,0>::Construct )
557		, SchemaEntry("ifcrelassociates",&STEP::ObjectHelper<NotImplemented,0>::Construct )
558		, SchemaEntry("ifcrelassociatesclassification",&STEP::ObjectHelper<NotImplemented,0>::Construct )
559		, SchemaEntry("ifccoolingtowertype",&STEP::ObjectHelper<IfcCoolingTowerType,1>::Construct )
560		, SchemaEntry("ifcmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
561		, SchemaEntry("ifcgeneralmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
562		, SchemaEntry("ifcfacetedbrepwithvoids",&STEP::ObjectHelper<IfcFacetedBrepWithVoids,1>::Construct )
563	436	, SchemaEntry("ifcprofileproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
564	437	, SchemaEntry("ifcgeneralprofileproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
565	438	, SchemaEntry("ifcstructuralprofileproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
566		, SchemaEntry("ifcvalvetype",&STEP::ObjectHelper<IfcValveType,1>::Construct )
567		, SchemaEntry("ifcsystemfurnitureelementtype",&STEP::ObjectHelper<IfcSystemFurnitureElementType,0>::Construct )
568		, SchemaEntry("ifcdiscreteaccessory",&STEP::ObjectHelper<IfcDiscreteAccessory,0>::Construct )
	439	, SchemaEntry("ifcflowterminaltype",&STEP::ObjectHelper<IfcFlowTerminalType,0>::Construct )
	440	, SchemaEntry("ifcstackterminaltype",&STEP::ObjectHelper<IfcStackTerminalType,1>::Construct )
	441	, SchemaEntry("ifcstructuralitem",&STEP::ObjectHelper<IfcStructuralItem,0>::Construct )
	442	, SchemaEntry("ifcstructuralconnection",&STEP::ObjectHelper<IfcStructuralConnection,1>::Construct )
	443	, SchemaEntry("ifcstructuralcurveconnection",&STEP::ObjectHelper<IfcStructuralCurveConnection,0>::Construct )
	444	, SchemaEntry("ifcjunctionboxtype",&STEP::ObjectHelper<IfcJunctionBoxType,1>::Construct )
	445	, SchemaEntry("ifcrelassociates",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	446	, SchemaEntry("ifcrelassociatesconstraint",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	447	, SchemaEntry("ifcpropertydefinition",&STEP::ObjectHelper<IfcPropertyDefinition,0>::Construct )
	448	, SchemaEntry("ifcpropertysetdefinition",&STEP::ObjectHelper<IfcPropertySetDefinition,0>::Construct )
	449	, SchemaEntry("ifcdoorpanelproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	450	, SchemaEntry("ifcconstraintrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	451	, SchemaEntry("ifcspacethermalloadproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	452	, SchemaEntry("ifclibraryinformation",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	453	, SchemaEntry("ifcprocess",&STEP::ObjectHelper<IfcProcess,0>::Construct )
	454	, SchemaEntry("ifctask",&STEP::ObjectHelper<IfcTask,5>::Construct )
	455	, SchemaEntry("ifcappliedvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	456	, SchemaEntry("ifcenvironmentalimpactvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	457	, SchemaEntry("ifcrelfillselement",&STEP::ObjectHelper<IfcRelFillsElement,2>::Construct )
	458	, SchemaEntry("ifcprocedure",&STEP::ObjectHelper<IfcProcedure,3>::Construct )
	459	, SchemaEntry("ifcstructuralload",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	460	, SchemaEntry("ifcstructuralloadstatic",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	461	, SchemaEntry("ifcstructuralloadsingledisplacement",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	462	, SchemaEntry("ifcproxy",&STEP::ObjectHelper<IfcProxy,2>::Construct )
	463	, SchemaEntry("ifccurvestylefont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	464	, SchemaEntry("ifcresource",&STEP::ObjectHelper<IfcResource,0>::Construct )
	465	, SchemaEntry("ifcconstructionresource",&STEP::ObjectHelper<IfcConstructionResource,4>::Construct )
	466	, SchemaEntry("ifcsubcontractresource",&STEP::ObjectHelper<IfcSubContractResource,2>::Construct )
	467	, SchemaEntry("ifccalendardate",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	468	, SchemaEntry("ifcdocumentelectronicformat",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	469	, SchemaEntry("ifcrelcontainedinspatialstructure",&STEP::ObjectHelper<IfcRelContainedInSpatialStructure,2>::Construct )
	470	, SchemaEntry("ifcmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	471	, SchemaEntry("ifcproductsofcombustionproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	472	, SchemaEntry("ifctopologicalrepresentationitem",&STEP::ObjectHelper<IfcTopologicalRepresentationItem,0>::Construct )
	473	, SchemaEntry("ifcedge",&STEP::ObjectHelper<IfcEdge,2>::Construct )
	474	, SchemaEntry("ifcedgecurve",&STEP::ObjectHelper<IfcEdgeCurve,2>::Construct )
	475	, SchemaEntry("ifcplatetype",&STEP::ObjectHelper<IfcPlateType,1>::Construct )
	476	, SchemaEntry("ifcobjectplacement",&STEP::ObjectHelper<IfcObjectPlacement,0>::Construct )
	477	, SchemaEntry("ifcgridplacement",&STEP::ObjectHelper<IfcGridPlacement,2>::Construct )
	478	, SchemaEntry("ifcfiresuppressionterminaltype",&STEP::ObjectHelper<IfcFireSuppressionTerminalType,1>::Construct )
	479	, SchemaEntry("ifcmechanicalmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	480	, SchemaEntry("ifcflowstoragedevice",&STEP::ObjectHelper<IfcFlowStorageDevice,0>::Construct )
569	481	, SchemaEntry("ifcperson",&STEP::ObjectHelper<NotImplemented,0>::Construct )
570		, SchemaEntry("ifcbuildingelementtype",&STEP::ObjectHelper<IfcBuildingElementType,0>::Construct )
571		, SchemaEntry("ifcrailingtype",&STEP::ObjectHelper<IfcRailingType,1>::Construct )
572		, SchemaEntry("ifcgasterminaltype",&STEP::ObjectHelper<IfcGasTerminalType,1>::Construct )
573		, SchemaEntry("ifctimeseries",&STEP::ObjectHelper<NotImplemented,0>::Construct )
574		, SchemaEntry("ifcirregulartimeseries",&STEP::ObjectHelper<NotImplemented,0>::Construct )
575		, SchemaEntry("ifcspaceprogram",&STEP::ObjectHelper<IfcSpaceProgram,5>::Construct )
576		, SchemaEntry("ifccovering",&STEP::ObjectHelper<IfcCovering,1>::Construct )
577		, SchemaEntry("ifcshapeaspect",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	482	, SchemaEntry("ifcsweptsurface",&STEP::ObjectHelper<IfcSweptSurface,2>::Construct )
	483	, SchemaEntry("ifcsurfaceofrevolution",&STEP::ObjectHelper<IfcSurfaceOfRevolution,1>::Construct )
	484	, SchemaEntry("ifcorientededge",&STEP::ObjectHelper<IfcOrientedEdge,2>::Construct )
	485	, SchemaEntry("ifcownerhistory",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	486	, SchemaEntry("ifcrelassigns",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	487	, SchemaEntry("ifcrelassignstoactor",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	488	, SchemaEntry("ifcdirection",&STEP::ObjectHelper<IfcDirection,1>::Construct )
	489	, SchemaEntry("ifcreinforcementbarproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	490	, SchemaEntry("ifcprofiledef",&STEP::ObjectHelper<IfcProfileDef,2>::Construct )
	491	, SchemaEntry("ifcparameterizedprofiledef",&STEP::ObjectHelper<IfcParameterizedProfileDef,1>::Construct )
	492	, SchemaEntry("ifccshapeprofiledef",&STEP::ObjectHelper<IfcCShapeProfileDef,6>::Construct )
	493	, SchemaEntry("ifcfeatureelement",&STEP::ObjectHelper<IfcFeatureElement,0>::Construct )
	494	, SchemaEntry("ifcfeatureelementsubtraction",&STEP::ObjectHelper<IfcFeatureElementSubtraction,0>::Construct )
	495	, SchemaEntry("ifcedgefeature",&STEP::ObjectHelper<IfcEdgeFeature,1>::Construct )
	496	, SchemaEntry("ifcchamferedgefeature",&STEP::ObjectHelper<IfcChamferEdgeFeature,2>::Construct )
	497	, SchemaEntry("ifcbuildingelement",&STEP::ObjectHelper<IfcBuildingElement,0>::Construct )
	498	, SchemaEntry("ifccolumn",&STEP::ObjectHelper<IfcColumn,0>::Construct )
	499	, SchemaEntry("ifcpropertyreferencevalue",&STEP::ObjectHelper<IfcPropertyReferenceValue,2>::Construct )
	500	, SchemaEntry("ifcmaterialclassificationrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	501	, SchemaEntry("ifcelectricmotortype",&STEP::ObjectHelper<IfcElectricMotorType,1>::Construct )
	502	, SchemaEntry("ifcspatialstructureelementtype",&STEP::ObjectHelper<IfcSpatialStructureElementType,0>::Construct )
	503	, SchemaEntry("ifcspacetype",&STEP::ObjectHelper<IfcSpaceType,1>::Construct )
	504	, SchemaEntry("ifcexternalreference",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	505	, SchemaEntry("ifcexternallydefinedhatchstyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	506	, SchemaEntry("ifccolumntype",&STEP::ObjectHelper<IfcColumnType,1>::Construct )
	507	, SchemaEntry("ifccranerailashapeprofiledef",&STEP::ObjectHelper<IfcCraneRailAShapeProfileDef,12>::Construct )
	508	, SchemaEntry("ifccondensertype",&STEP::ObjectHelper<IfcCondenserType,1>::Construct )
	509	, SchemaEntry("ifcrelconnectselements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	510	, SchemaEntry("ifcrelconnectswithrealizingelements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	511	, SchemaEntry("ifccircleprofiledef",&STEP::ObjectHelper<IfcCircleProfileDef,1>::Construct )
	512	, SchemaEntry("ifccirclehollowprofiledef",&STEP::ObjectHelper<IfcCircleHollowProfileDef,1>::Construct )
	513	, SchemaEntry("ifcorganizationrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	514	, SchemaEntry("ifcplacement",&STEP::ObjectHelper<IfcPlacement,1>::Construct )
	515	, SchemaEntry("ifcaxis2placement3d",&STEP::ObjectHelper<IfcAxis2Placement3D,2>::Construct )
578	516	, SchemaEntry("ifcpresentationstyle",&STEP::ObjectHelper<IfcPresentationStyle,1>::Construct )
579		, SchemaEntry("ifcclassificationitemrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
580		, SchemaEntry("ifcelectricheatertype",&STEP::ObjectHelper<IfcElectricHeaterType,1>::Construct )
581		, SchemaEntry("ifcbuildingstorey",&STEP::ObjectHelper<IfcBuildingStorey,1>::Construct )
582		, SchemaEntry("ifcvertex",&STEP::ObjectHelper<IfcVertex,0>::Construct )
583		, SchemaEntry("ifcvertexpoint",&STEP::ObjectHelper<IfcVertexPoint,1>::Construct )
	517	, SchemaEntry("ifccurvestyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	518	, SchemaEntry("ifcequipmentelement",&STEP::ObjectHelper<IfcEquipmentElement,0>::Construct )
	519	, SchemaEntry("ifccompositecurvesegment",&STEP::ObjectHelper<IfcCompositeCurveSegment,3>::Construct )
	520	, SchemaEntry("ifcrectangleprofiledef",&STEP::ObjectHelper<IfcRectangleProfileDef,2>::Construct )
	521	, SchemaEntry("ifcphysicalquantity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	522	, SchemaEntry("ifcphysicalcomplexquantity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	523	, SchemaEntry("ifcrelassociateslibrary",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	524	, SchemaEntry("ifcrelsequence",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	525	, SchemaEntry("ifcbuildingelementproxy",&STEP::ObjectHelper<IfcBuildingElementProxy,1>::Construct )
	526	, SchemaEntry("ifcdistributioncontrolelementtype",&STEP::ObjectHelper<IfcDistributionControlElementType,0>::Construct )
584	527	, SchemaEntry("ifcflowinstrumenttype",&STEP::ObjectHelper<IfcFlowInstrumentType,1>::Construct )
585		, SchemaEntry("ifcparameterizedprofiledef",&STEP::ObjectHelper<IfcParameterizedProfileDef,1>::Construct )
586		, SchemaEntry("ifcushapeprofiledef",&STEP::ObjectHelper<IfcUShapeProfileDef,8>::Construct )
587		, SchemaEntry("ifcramp",&STEP::ObjectHelper<IfcRamp,1>::Construct )
588		, SchemaEntry("ifcfillareastyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
589		, SchemaEntry("ifccompositecurve",&STEP::ObjectHelper<IfcCompositeCurve,2>::Construct )
590		, SchemaEntry("ifcrelservicesbuildings",&STEP::ObjectHelper<NotImplemented,0>::Construct )
591		, SchemaEntry("ifcstructuralcurvemembervarying",&STEP::ObjectHelper<IfcStructuralCurveMemberVarying,0>::Construct )
592		, SchemaEntry("ifcrelreferencedinspatialstructure",&STEP::ObjectHelper<NotImplemented,0>::Construct )
593		, SchemaEntry("ifcrampflighttype",&STEP::ObjectHelper<IfcRampFlightType,1>::Construct )
594	528	, SchemaEntry("ifcdraughtingcallout",&STEP::ObjectHelper<IfcDraughtingCallout,1>::Construct )
595	529	, SchemaEntry("ifcdimensioncurvedirectedcallout",&STEP::ObjectHelper<IfcDimensionCurveDirectedCallout,0>::Construct )
	530	, SchemaEntry("ifclineardimension",&STEP::ObjectHelper<IfcLinearDimension,0>::Construct )
	531	, SchemaEntry("ifcelementassembly",&STEP::ObjectHelper<IfcElementAssembly,2>::Construct )
	532	, SchemaEntry("ifcdraughtingcalloutrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	533	, SchemaEntry("ifccsgprimitive3d",&STEP::ObjectHelper<IfcCsgPrimitive3D,1>::Construct )
	534	, SchemaEntry("ifcrightcircularcone",&STEP::ObjectHelper<IfcRightCircularCone,2>::Construct )
	535	, SchemaEntry("ifcexternallydefinedsurfacestyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	536	, SchemaEntry("ifcprojectorder",&STEP::ObjectHelper<IfcProjectOrder,3>::Construct )
	537	, SchemaEntry("ifcpropertyconstraintrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	538	, SchemaEntry("ifclshapeprofiledef",&STEP::ObjectHelper<IfcLShapeProfileDef,8>::Construct )
	539	, SchemaEntry("ifcangulardimension",&STEP::ObjectHelper<IfcAngularDimension,0>::Construct )
	540	, SchemaEntry("ifctextstylefordefinedfont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	541	, SchemaEntry("ifclocalplacement",&STEP::ObjectHelper<IfcLocalPlacement,2>::Construct )
	542	, SchemaEntry("ifcsweptareasolid",&STEP::ObjectHelper<IfcSweptAreaSolid,2>::Construct )
	543	, SchemaEntry("ifcrevolvedareasolid",&STEP::ObjectHelper<IfcRevolvedAreaSolid,2>::Construct )
	544	, SchemaEntry("ifcstructuralsurfaceconnection",&STEP::ObjectHelper<IfcStructuralSurfaceConnection,0>::Construct )
596	545	, SchemaEntry("ifcradiusdimension",&STEP::ObjectHelper<IfcRadiusDimension,0>::Construct )
597		, SchemaEntry("ifcedgefeature",&STEP::ObjectHelper<IfcEdgeFeature,1>::Construct )
598		, SchemaEntry("ifcsweptareasolid",&STEP::ObjectHelper<IfcSweptAreaSolid,2>::Construct )
599		, SchemaEntry("ifcextrudedareasolid",&STEP::ObjectHelper<IfcExtrudedAreaSolid,2>::Construct )
600		, SchemaEntry("ifcquantitycount",&STEP::ObjectHelper<NotImplemented,0>::Construct )
601		, SchemaEntry("ifcannotationtextoccurrence",&STEP::ObjectHelper<IfcAnnotationTextOccurrence,0>::Construct )
602		, SchemaEntry("ifcreferencesvaluedocument",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	546	, SchemaEntry("ifcsweptdisksolid",&STEP::ObjectHelper<IfcSweptDiskSolid,5>::Construct )
	547	, SchemaEntry("ifchalfspacesolid",&STEP::ObjectHelper<IfcHalfSpaceSolid,2>::Construct )
	548	, SchemaEntry("ifcpolygonalboundedhalfspace",&STEP::ObjectHelper<IfcPolygonalBoundedHalfSpace,2>::Construct )
	549	, SchemaEntry("ifctimeseriesschedule",&STEP::ObjectHelper<IfcTimeSeriesSchedule,3>::Construct )
	550	, SchemaEntry("ifcdimensioncalloutrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	551	, SchemaEntry("ifccooledbeamtype",&STEP::ObjectHelper<IfcCooledBeamType,1>::Construct )
	552	, SchemaEntry("ifcproject",&STEP::ObjectHelper<IfcProject,4>::Construct )
	553	, SchemaEntry("ifcapprovalrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	554	, SchemaEntry("ifcevaporatortype",&STEP::ObjectHelper<IfcEvaporatorType,1>::Construct )
	555	, SchemaEntry("ifclaborresource",&STEP::ObjectHelper<IfcLaborResource,1>::Construct )
	556	, SchemaEntry("ifcstructuralloadsingledisplacementdistortion",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	557	, SchemaEntry("ifcpropertyboundedvalue",&STEP::ObjectHelper<IfcPropertyBoundedValue,3>::Construct )
	558	, SchemaEntry("ifcrampflighttype",&STEP::ObjectHelper<IfcRampFlightType,1>::Construct )
	559	, SchemaEntry("ifcmember",&STEP::ObjectHelper<IfcMember,0>::Construct )
	560	, SchemaEntry("ifcstructuralloadplanarforce",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	561	, SchemaEntry("ifctubebundletype",&STEP::ObjectHelper<IfcTubeBundleType,1>::Construct )
	562	, SchemaEntry("ifcvalvetype",&STEP::ObjectHelper<IfcValveType,1>::Construct )
	563	, SchemaEntry("ifcexternallydefinedtextfont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	564	, SchemaEntry("ifctrimmedcurve",&STEP::ObjectHelper<IfcTrimmedCurve,5>::Construct )
	565	, SchemaEntry("ifcreldefines",&STEP::ObjectHelper<IfcRelDefines,1>::Construct )
	566	, SchemaEntry("ifcreldefinesbyproperties",&STEP::ObjectHelper<IfcRelDefinesByProperties,1>::Construct )
	567	, SchemaEntry("ifcrelassignstocontrol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	568	, SchemaEntry("ifcactor",&STEP::ObjectHelper<IfcActor,1>::Construct )
	569	, SchemaEntry("ifcoccupant",&STEP::ObjectHelper<IfcOccupant,1>::Construct )
	570	, SchemaEntry("ifchumidifiertype",&STEP::ObjectHelper<IfcHumidifierType,1>::Construct )
	571	, SchemaEntry("ifcarbitraryopenprofiledef",&STEP::ObjectHelper<IfcArbitraryOpenProfileDef,1>::Construct )
	572	, SchemaEntry("ifcrelassignstoprojectorder",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	573	, SchemaEntry("ifcpermit",&STEP::ObjectHelper<IfcPermit,1>::Construct )
	574	, SchemaEntry("ifcoffsetcurve3d",&STEP::ObjectHelper<IfcOffsetCurve3D,4>::Construct )
	575	, SchemaEntry("ifclightsource",&STEP::ObjectHelper<IfcLightSource,4>::Construct )
	576	, SchemaEntry("ifclightsourcepositional",&STEP::ObjectHelper<IfcLightSourcePositional,5>::Construct )
	577	, SchemaEntry("ifcsurfacetexture",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	578	, SchemaEntry("ifcblobtexture",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	579	, SchemaEntry("ifccompositeprofiledef",&STEP::ObjectHelper<IfcCompositeProfileDef,2>::Construct )
	580	, SchemaEntry("ifcdocumentinformation",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	581	, SchemaEntry("ifcsurfacestylelighting",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	582	, SchemaEntry("ifcphysicalsimplequantity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	583	, SchemaEntry("ifcquantityarea",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	584	, SchemaEntry("ifctimeseries",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	585	, SchemaEntry("ifcclassificationnotation",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	586	, SchemaEntry("ifcramp",&STEP::ObjectHelper<IfcRamp,1>::Construct )
	587	, SchemaEntry("ifcpredefineditem",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	588	, SchemaEntry("ifcpredefinedcurvefont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	589	, SchemaEntry("ifcpredefinedcolour",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	590	, SchemaEntry("ifccurrencyrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	591	, SchemaEntry("ifcflowmovingdevice",&STEP::ObjectHelper<IfcFlowMovingDevice,0>::Construct )
	592	, SchemaEntry("ifcspaceheatertype",&STEP::ObjectHelper<IfcSpaceHeaterType,1>::Construct )
	593	, SchemaEntry("ifclamptype",&STEP::ObjectHelper<IfcLampType,1>::Construct )
	594	, SchemaEntry("ifcbuildingelementcomponent",&STEP::ObjectHelper<IfcBuildingElementComponent,0>::Construct )
	595	, SchemaEntry("ifcreinforcingelement",&STEP::ObjectHelper<IfcReinforcingElement,1>::Construct )
	596	, SchemaEntry("ifcreinforcingbar",&STEP::ObjectHelper<IfcReinforcingBar,5>::Construct )
	597	, SchemaEntry("ifcelectricheatertype",&STEP::ObjectHelper<IfcElectricHeaterType,1>::Construct )
	598	, SchemaEntry("ifctshapeprofiledef",&STEP::ObjectHelper<IfcTShapeProfileDef,10>::Construct )
	599	, SchemaEntry("ifcconstraint",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	600	, SchemaEntry("ifcobjective",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	601	, SchemaEntry("ifcstructuralactivity",&STEP::ObjectHelper<IfcStructuralActivity,2>::Construct )
	602	, SchemaEntry("ifcstructuralaction",&STEP::ObjectHelper<IfcStructuralAction,2>::Construct )
	603	, SchemaEntry("ifctexturecoordinate",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	604	, SchemaEntry("ifctexturemap",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	605	, SchemaEntry("ifcmonetaryunit",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	606	, SchemaEntry("ifcquantitytime",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	607	, SchemaEntry("ifctablerow",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	608	, SchemaEntry("ifclightdistributiondata",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	609	, SchemaEntry("ifcductfittingtype",&STEP::ObjectHelper<IfcDuctFittingType,1>::Construct )
	610	, SchemaEntry("ifccartesiantransformationoperator2d",&STEP::ObjectHelper<IfcCartesianTransformationOperator2D,0>::Construct )
	611	, SchemaEntry("ifccartesiantransformationoperator2dnonuniform",&STEP::ObjectHelper<IfcCartesianTransformationOperator2DnonUniform,1>::Construct )
	612	, SchemaEntry("ifcclassificationnotationfacet",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	613	, SchemaEntry("ifcrelassociatesapproval",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	614	, SchemaEntry("ifcdraughtingpredefinedcurvefont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	615	, SchemaEntry("ifcstructuralloadsingleforce",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	616	, SchemaEntry("ifcstructuralloadsingleforcewarping",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	617	, SchemaEntry("ifccurvestylefontandscaling",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	618	, SchemaEntry("ifcvirtualelement",&STEP::ObjectHelper<IfcVirtualElement,0>::Construct )
	619	, SchemaEntry("ifcrightcircularcylinder",&STEP::ObjectHelper<IfcRightCircularCylinder,2>::Construct )
	620	, SchemaEntry("ifcoutlettype",&STEP::ObjectHelper<IfcOutletType,1>::Construct )
	621	, SchemaEntry("ifcreldecomposes",&STEP::ObjectHelper<IfcRelDecomposes,2>::Construct )
	622	, SchemaEntry("ifcrelnests",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	623	, SchemaEntry("ifccovering",&STEP::ObjectHelper<IfcCovering,1>::Construct )
	624	, SchemaEntry("ifcexternallydefinedsymbol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	625	, SchemaEntry("ifcirregulartimeseries",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	626	, SchemaEntry("ifcpolyline",&STEP::ObjectHelper<IfcPolyline,1>::Construct )
	627	, SchemaEntry("ifcpath",&STEP::ObjectHelper<IfcPath,1>::Construct )
	628	, SchemaEntry("ifcelementcomponent",&STEP::ObjectHelper<IfcElementComponent,0>::Construct )
	629	, SchemaEntry("ifcfastener",&STEP::ObjectHelper<IfcFastener,0>::Construct )
	630	, SchemaEntry("ifcmappeditem",&STEP::ObjectHelper<IfcMappedItem,2>::Construct )
	631	, SchemaEntry("ifcmetric",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	632	, SchemaEntry("ifcdocumentreference",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	633	, SchemaEntry("ifcsectionproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	634	, SchemaEntry("ifcrectangularpyramid",&STEP::ObjectHelper<IfcRectangularPyramid,3>::Construct )
	635	, SchemaEntry("ifcrelreferencedinspatialstructure",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	636	, SchemaEntry("ifccrewresource",&STEP::ObjectHelper<IfcCrewResource,0>::Construct )
	637	, SchemaEntry("ifcnamedunit",&STEP::ObjectHelper<IfcNamedUnit,2>::Construct )
	638	, SchemaEntry("ifccontextdependentunit",&STEP::ObjectHelper<IfcContextDependentUnit,1>::Construct )
	639	, SchemaEntry("ifcunitaryequipmenttype",&STEP::ObjectHelper<IfcUnitaryEquipmentType,1>::Construct )
	640	, SchemaEntry("ifcroof",&STEP::ObjectHelper<IfcRoof,1>::Construct )
	641	, SchemaEntry("ifcrelassignstasks",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	642	, SchemaEntry("ifcstructuralmember",&STEP::ObjectHelper<IfcStructuralMember,0>::Construct )
	643	, SchemaEntry("ifcrelconnectsports",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	644	, SchemaEntry("ifcstylemodel",&STEP::ObjectHelper<IfcStyleModel,0>::Construct )
	645	, SchemaEntry("ifcstyledrepresentation",&STEP::ObjectHelper<IfcStyledRepresentation,0>::Construct )
	646	, SchemaEntry("ifcspatialstructureelement",&STEP::ObjectHelper<IfcSpatialStructureElement,2>::Construct )
	647	, SchemaEntry("ifcbuilding",&STEP::ObjectHelper<IfcBuilding,3>::Construct )
	648	, SchemaEntry("ifcconnectedfaceset",&STEP::ObjectHelper<IfcConnectedFaceSet,1>::Construct )
	649	, SchemaEntry("ifcopenshell",&STEP::ObjectHelper<IfcOpenShell,0>::Construct )
	650	, SchemaEntry("ifcfacetedbrep",&STEP::ObjectHelper<IfcFacetedBrep,0>::Construct )
	651	, SchemaEntry("ifclocaltime",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	652	, SchemaEntry("ifcmechanicalconcretematerialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	653	, SchemaEntry("ifcconic",&STEP::ObjectHelper<IfcConic,1>::Construct )
	654	, SchemaEntry("ifccoveringtype",&STEP::ObjectHelper<IfcCoveringType,1>::Construct )
	655	, SchemaEntry("ifcroundedrectangleprofiledef",&STEP::ObjectHelper<IfcRoundedRectangleProfileDef,1>::Construct )
	656	, SchemaEntry("ifcairterminaltype",&STEP::ObjectHelper<IfcAirTerminalType,1>::Construct )
	657	, SchemaEntry("ifcflowmovingdevicetype",&STEP::ObjectHelper<IfcFlowMovingDeviceType,0>::Construct )
	658	, SchemaEntry("ifccompressortype",&STEP::ObjectHelper<IfcCompressorType,1>::Construct )
	659	, SchemaEntry("ifcwindowpanelproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	660	, SchemaEntry("ifcpredefinedsymbol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	661	, SchemaEntry("ifcpredefinedterminatorsymbol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	662	, SchemaEntry("ifcishapeprofiledef",&STEP::ObjectHelper<IfcIShapeProfileDef,5>::Construct )
	663	, SchemaEntry("ifcasymmetricishapeprofiledef",&STEP::ObjectHelper<IfcAsymmetricIShapeProfileDef,4>::Construct )
	664	, SchemaEntry("ifccontrollertype",&STEP::ObjectHelper<IfcControllerType,1>::Construct )
	665	, SchemaEntry("ifcrailing",&STEP::ObjectHelper<IfcRailing,1>::Construct )
	666	, SchemaEntry("ifcgroup",&STEP::ObjectHelper<IfcGroup,0>::Construct )
	667	, SchemaEntry("ifcasset",&STEP::ObjectHelper<IfcAsset,9>::Construct )
	668	, SchemaEntry("ifcmaterialdefinitionrepresentation",&STEP::ObjectHelper<IfcMaterialDefinitionRepresentation,1>::Construct )
	669	, SchemaEntry("ifccurvestylefontpattern",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	670	, SchemaEntry("ifcapprovalpropertyrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	671	, SchemaEntry("ifcrailingtype",&STEP::ObjectHelper<IfcRailingType,1>::Construct )
	672	, SchemaEntry("ifcwall",&STEP::ObjectHelper<IfcWall,0>::Construct )
	673	, SchemaEntry("ifcclassificationitem",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	674	, SchemaEntry("ifcstructuralpointconnection",&STEP::ObjectHelper<IfcStructuralPointConnection,0>::Construct )
	675	, SchemaEntry("ifcconnectiongeometry",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	676	, SchemaEntry("ifcconnectionpointgeometry",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	677	, SchemaEntry("ifctimeseriesvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	678	, SchemaEntry("ifcpropertylistvalue",&STEP::ObjectHelper<IfcPropertyListValue,2>::Construct )
	679	, SchemaEntry("ifcfurniturestandard",&STEP::ObjectHelper<IfcFurnitureStandard,0>::Construct )
	680	, SchemaEntry("ifcrelschedulescostitems",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	681	, SchemaEntry("ifcelectricgeneratortype",&STEP::ObjectHelper<IfcElectricGeneratorType,1>::Construct )
	682	, SchemaEntry("ifcdoor",&STEP::ObjectHelper<IfcDoor,2>::Construct )
	683	, SchemaEntry("ifcstyleditem",&STEP::ObjectHelper<IfcStyledItem,3>::Construct )
	684	, SchemaEntry("ifcannotationoccurrence",&STEP::ObjectHelper<IfcAnnotationOccurrence,0>::Construct )
	685	, SchemaEntry("ifcannotationsymboloccurrence",&STEP::ObjectHelper<IfcAnnotationSymbolOccurrence,0>::Construct )
	686	, SchemaEntry("ifcarbitraryclosedprofiledef",&STEP::ObjectHelper<IfcArbitraryClosedProfileDef,1>::Construct )
	687	, SchemaEntry("ifcarbitraryprofiledefwithvoids",&STEP::ObjectHelper<IfcArbitraryProfileDefWithVoids,1>::Construct )
	688	, SchemaEntry("ifcline",&STEP::ObjectHelper<IfcLine,2>::Construct )
	689	, SchemaEntry("ifcmateriallayerset",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	690	, SchemaEntry("ifcflowsegmenttype",&STEP::ObjectHelper<IfcFlowSegmentType,0>::Construct )
	691	, SchemaEntry("ifcairterminalboxtype",&STEP::ObjectHelper<IfcAirTerminalBoxType,1>::Construct )
	692	, SchemaEntry("ifcrelconnectsstructuralmember",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	693	, SchemaEntry("ifcpropertysinglevalue",&STEP::ObjectHelper<IfcPropertySingleValue,2>::Construct )
	694	, SchemaEntry("ifcalarmtype",&STEP::ObjectHelper<IfcAlarmType,1>::Construct )
	695	, SchemaEntry("ifcellipseprofiledef",&STEP::ObjectHelper<IfcEllipseProfileDef,2>::Construct )
603	696	, SchemaEntry("ifcstair",&STEP::ObjectHelper<IfcStair,1>::Construct )
604		, SchemaEntry("ifcsymbolstyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
605		, SchemaEntry("ifcfillareastyletilesymbolwithstyle",&STEP::ObjectHelper<IfcFillAreaStyleTileSymbolWithStyle,1>::Construct )
606		, SchemaEntry("ifcannotationsymboloccurrence",&STEP::ObjectHelper<IfcAnnotationSymbolOccurrence,0>::Construct )
607		, SchemaEntry("ifcterminatorsymbol",&STEP::ObjectHelper<IfcTerminatorSymbol,1>::Construct )
608		, SchemaEntry("ifcdimensioncurveterminator",&STEP::ObjectHelper<IfcDimensionCurveTerminator,1>::Construct )
609		, SchemaEntry("ifcrectangleprofiledef",&STEP::ObjectHelper<IfcRectangleProfileDef,2>::Construct )
610		, SchemaEntry("ifcrectanglehollowprofiledef",&STEP::ObjectHelper<IfcRectangleHollowProfileDef,3>::Construct )
611		, SchemaEntry("ifcrelassociateslibrary",&STEP::ObjectHelper<NotImplemented,0>::Construct )
612		, SchemaEntry("ifclocalplacement",&STEP::ObjectHelper<IfcLocalPlacement,2>::Construct )
613		, SchemaEntry("ifcopticalmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
614		, SchemaEntry("ifcservicelifefactor",&STEP::ObjectHelper<NotImplemented,0>::Construct )
615		, SchemaEntry("ifcrelassignstasks",&STEP::ObjectHelper<NotImplemented,0>::Construct )
616		, SchemaEntry("ifctask",&STEP::ObjectHelper<IfcTask,5>::Construct )
617		, SchemaEntry("ifcannotationfillareaoccurrence",&STEP::ObjectHelper<IfcAnnotationFillAreaOccurrence,2>::Construct )
618		, SchemaEntry("ifcface",&STEP::ObjectHelper<IfcFace,1>::Construct )
619		, SchemaEntry("ifcflowsegmenttype",&STEP::ObjectHelper<IfcFlowSegmentType,0>::Construct )
620		, SchemaEntry("ifcductsegmenttype",&STEP::ObjectHelper<IfcDuctSegmentType,1>::Construct )
621		, SchemaEntry("ifcpropertyenumeration",&STEP::ObjectHelper<NotImplemented,0>::Construct )
622		, SchemaEntry("ifcconstructionresource",&STEP::ObjectHelper<IfcConstructionResource,4>::Construct )
623		, SchemaEntry("ifcconstructionequipmentresource",&STEP::ObjectHelper<IfcConstructionEquipmentResource,0>::Construct )
624		, SchemaEntry("ifcsanitaryterminaltype",&STEP::ObjectHelper<IfcSanitaryTerminalType,1>::Construct )
625		, SchemaEntry("ifcpredefineddimensionsymbol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
626		, SchemaEntry("ifcorganization",&STEP::ObjectHelper<NotImplemented,0>::Construct )
627		, SchemaEntry("ifccircleprofiledef",&STEP::ObjectHelper<IfcCircleProfileDef,1>::Construct )
628		, SchemaEntry("ifcstructuralreaction",&STEP::ObjectHelper<IfcStructuralReaction,0>::Construct )
629		, SchemaEntry("ifcstructuralpointreaction",&STEP::ObjectHelper<IfcStructuralPointReaction,0>::Construct )
630		, SchemaEntry("ifcrailing",&STEP::ObjectHelper<IfcRailing,1>::Construct )
631		, SchemaEntry("ifctextliteral",&STEP::ObjectHelper<IfcTextLiteral,3>::Construct )
632		, SchemaEntry("ifccartesiantransformationoperator",&STEP::ObjectHelper<IfcCartesianTransformationOperator,4>::Construct )
633		, SchemaEntry("ifccostvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
634		, SchemaEntry("ifctextstyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
635		, SchemaEntry("ifclineardimension",&STEP::ObjectHelper<IfcLinearDimension,0>::Construct )
636		, SchemaEntry("ifcdampertype",&STEP::ObjectHelper<IfcDamperType,1>::Construct )
637		, SchemaEntry("ifcsiunit",&STEP::ObjectHelper<IfcSIUnit,2>::Construct )
638		, SchemaEntry("ifcsurfacestylelighting",&STEP::ObjectHelper<NotImplemented,0>::Construct )
639		, SchemaEntry("ifcmeasurewithunit",&STEP::ObjectHelper<IfcMeasureWithUnit,2>::Construct )
640		, SchemaEntry("ifcmateriallayerset",&STEP::ObjectHelper<NotImplemented,0>::Construct )
641		, SchemaEntry("ifcdistributionelement",&STEP::ObjectHelper<IfcDistributionElement,0>::Construct )
642		, SchemaEntry("ifcdistributioncontrolelement",&STEP::ObjectHelper<IfcDistributionControlElement,1>::Construct )
643		, SchemaEntry("ifctransformertype",&STEP::ObjectHelper<IfcTransformerType,1>::Construct )
644		, SchemaEntry("ifclaborresource",&STEP::ObjectHelper<IfcLaborResource,1>::Construct )
645		, SchemaEntry("ifcderivedprofiledef",&STEP::ObjectHelper<IfcDerivedProfileDef,3>::Construct )
646		, SchemaEntry("ifcrelconnectsstructuralmember",&STEP::ObjectHelper<NotImplemented,0>::Construct )
647		, SchemaEntry("ifcrelconnectswitheccentricity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
648		, SchemaEntry("ifcfurniturestandard",&STEP::ObjectHelper<IfcFurnitureStandard,0>::Construct )
649		, SchemaEntry("ifcstairflighttype",&STEP::ObjectHelper<IfcStairFlightType,1>::Construct )
650		, SchemaEntry("ifcworkcontrol",&STEP::ObjectHelper<IfcWorkControl,10>::Construct )
651		, SchemaEntry("ifcworkplan",&STEP::ObjectHelper<IfcWorkPlan,0>::Construct )
652		, SchemaEntry("ifcreldefines",&STEP::ObjectHelper<NotImplemented,0>::Construct )
653		, SchemaEntry("ifcreldefinesbyproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
654		, SchemaEntry("ifccondition",&STEP::ObjectHelper<IfcCondition,0>::Construct )
655		, SchemaEntry("ifcgridaxis",&STEP::ObjectHelper<NotImplemented,0>::Construct )
656		, SchemaEntry("ifcrelvoidselement",&STEP::ObjectHelper<IfcRelVoidsElement,2>::Construct )
657		, SchemaEntry("ifcwindow",&STEP::ObjectHelper<IfcWindow,2>::Construct )
658		, SchemaEntry("ifcrelflowcontrolelements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
659		, SchemaEntry("ifcrelconnectsporttoelement",&STEP::ObjectHelper<NotImplemented,0>::Construct )
660		, SchemaEntry("ifcprotectivedevicetype",&STEP::ObjectHelper<IfcProtectiveDeviceType,1>::Construct )
661		, SchemaEntry("ifcjunctionboxtype",&STEP::ObjectHelper<IfcJunctionBoxType,1>::Construct )
662		, SchemaEntry("ifcstructuralanalysismodel",&STEP::ObjectHelper<IfcStructuralAnalysisModel,4>::Construct )
663		, SchemaEntry("ifcaxis2placement2d",&STEP::ObjectHelper<IfcAxis2Placement2D,1>::Construct )
664		, SchemaEntry("ifcspacetype",&STEP::ObjectHelper<IfcSpaceType,1>::Construct )
665		, SchemaEntry("ifcellipseprofiledef",&STEP::ObjectHelper<IfcEllipseProfileDef,2>::Construct )
666		, SchemaEntry("ifcdistributionflowelement",&STEP::ObjectHelper<IfcDistributionFlowElement,0>::Construct )
667		, SchemaEntry("ifcflowmovingdevice",&STEP::ObjectHelper<IfcFlowMovingDevice,0>::Construct )
668		, SchemaEntry("ifcsurfacestylewithtextures",&STEP::ObjectHelper<IfcSurfaceStyleWithTextures,1>::Construct )
669		, SchemaEntry("ifcgeometricset",&STEP::ObjectHelper<IfcGeometricSet,1>::Construct )
670		, SchemaEntry("ifcmechanicalmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
671		, SchemaEntry("ifcmechanicalconcretematerialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
672		, SchemaEntry("ifcribplateprofileproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
673		, SchemaEntry("ifcdocumentinformationrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
674		, SchemaEntry("ifcprojectorder",&STEP::ObjectHelper<IfcProjectOrder,3>::Construct )
675		, SchemaEntry("ifcbsplinecurve",&STEP::ObjectHelper<IfcBSplineCurve,5>::Construct )
676		, SchemaEntry("ifcbeziercurve",&STEP::ObjectHelper<IfcBezierCurve,0>::Construct )
677		, SchemaEntry("ifcstructuralpointconnection",&STEP::ObjectHelper<IfcStructuralPointConnection,0>::Construct )
678		, SchemaEntry("ifcflowcontroller",&STEP::ObjectHelper<IfcFlowController,0>::Construct )
679		, SchemaEntry("ifcelectricdistributionpoint",&STEP::ObjectHelper<IfcElectricDistributionPoint,2>::Construct )
680		, SchemaEntry("ifcsite",&STEP::ObjectHelper<IfcSite,5>::Construct )
681		, SchemaEntry("ifcoffsetcurve3d",&STEP::ObjectHelper<IfcOffsetCurve3D,4>::Construct )
682		, SchemaEntry("ifcpropertyset",&STEP::ObjectHelper<NotImplemented,0>::Construct )
683		, SchemaEntry("ifcconnectionsurfacegeometry",&STEP::ObjectHelper<NotImplemented,0>::Construct )
684		, SchemaEntry("ifcvirtualelement",&STEP::ObjectHelper<IfcVirtualElement,0>::Construct )
685		, SchemaEntry("ifcconstructionproductresource",&STEP::ObjectHelper<IfcConstructionProductResource,0>::Construct )
686		, SchemaEntry("ifcwaterproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
687		, SchemaEntry("ifcsurfacecurvesweptareasolid",&STEP::ObjectHelper<IfcSurfaceCurveSweptAreaSolid,4>::Construct )
688		, SchemaEntry("ifcpermeablecoveringproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
689		, SchemaEntry("ifccartesiantransformationoperator3d",&STEP::ObjectHelper<IfcCartesianTransformationOperator3D,1>::Construct )
690		, SchemaEntry("ifccartesiantransformationoperator3dnonuniform",&STEP::ObjectHelper<IfcCartesianTransformationOperator3DnonUniform,2>::Construct )
691		, SchemaEntry("ifccrewresource",&STEP::ObjectHelper<IfcCrewResource,0>::Construct )
692		, SchemaEntry("ifcstructuralsurfacemember",&STEP::ObjectHelper<IfcStructuralSurfaceMember,2>::Construct )
693		, SchemaEntry("ifc2dcompositecurve",&STEP::ObjectHelper<Ifc2DCompositeCurve,0>::Construct )
694		, SchemaEntry("ifcrepresentationcontext",&STEP::ObjectHelper<IfcRepresentationContext,2>::Construct )
695		, SchemaEntry("ifcgeometricrepresentationcontext",&STEP::ObjectHelper<IfcGeometricRepresentationContext,4>::Construct )
696		, SchemaEntry("ifcflowtreatmentdevice",&STEP::ObjectHelper<IfcFlowTreatmentDevice,0>::Construct )
697		, SchemaEntry("ifctextstylefordefinedfont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
698		, SchemaEntry("ifcrightcircularcylinder",&STEP::ObjectHelper<IfcRightCircularCylinder,2>::Construct )
699		, SchemaEntry("ifcwasteterminaltype",&STEP::ObjectHelper<IfcWasteTerminalType,1>::Construct )
700		, SchemaEntry("ifcspacethermalloadproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
701		, SchemaEntry("ifcconstraintrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
702		, SchemaEntry("ifcbuildingelementcomponent",&STEP::ObjectHelper<IfcBuildingElementComponent,0>::Construct )
703		, SchemaEntry("ifcbuildingelementpart",&STEP::ObjectHelper<IfcBuildingElementPart,0>::Construct )
704		, SchemaEntry("ifcwall",&STEP::ObjectHelper<IfcWall,0>::Construct )
705		, SchemaEntry("ifcwallstandardcase",&STEP::ObjectHelper<IfcWallStandardCase,0>::Construct )
706		, SchemaEntry("ifcapprovalactorrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
707		, SchemaEntry("ifcpath",&STEP::ObjectHelper<IfcPath,1>::Construct )
708		, SchemaEntry("ifcdefinedsymbol",&STEP::ObjectHelper<IfcDefinedSymbol,2>::Construct )
709		, SchemaEntry("ifcstructuralsurfacemembervarying",&STEP::ObjectHelper<IfcStructuralSurfaceMemberVarying,2>::Construct )
710		, SchemaEntry("ifcpoint",&STEP::ObjectHelper<IfcPoint,0>::Construct )
711		, SchemaEntry("ifcsurfaceofrevolution",&STEP::ObjectHelper<IfcSurfaceOfRevolution,1>::Construct )
712		, SchemaEntry("ifcflowterminal",&STEP::ObjectHelper<IfcFlowTerminal,0>::Construct )
713		, SchemaEntry("ifcfurnishingelement",&STEP::ObjectHelper<IfcFurnishingElement,0>::Construct )
714		, SchemaEntry("ifccurvestylefont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
715		, SchemaEntry("ifcsurfacestyleshading",&STEP::ObjectHelper<IfcSurfaceStyleShading,1>::Construct )
716		, SchemaEntry("ifcsurfacestylerendering",&STEP::ObjectHelper<IfcSurfaceStyleRendering,8>::Construct )
717		, SchemaEntry("ifccoordinateduniversaltimeoffset",&STEP::ObjectHelper<NotImplemented,0>::Construct )
718		, SchemaEntry("ifcstructuralloadsingledisplacement",&STEP::ObjectHelper<NotImplemented,0>::Construct )
719		, SchemaEntry("ifccirclehollowprofiledef",&STEP::ObjectHelper<IfcCircleHollowProfileDef,1>::Construct )
720		, SchemaEntry("ifcflowmovingdevicetype",&STEP::ObjectHelper<IfcFlowMovingDeviceType,0>::Construct )
721		, SchemaEntry("ifcfantype",&STEP::ObjectHelper<IfcFanType,1>::Construct )
722		, SchemaEntry("ifcstructuralplanaractionvarying",&STEP::ObjectHelper<IfcStructuralPlanarActionVarying,2>::Construct )
723		, SchemaEntry("ifcproductrepresentation",&STEP::ObjectHelper<IfcProductRepresentation,3>::Construct )
724		, SchemaEntry("ifcreldefinesbytype",&STEP::ObjectHelper<NotImplemented,0>::Construct )
725	697	, SchemaEntry("ifcpredefinedtextfont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
726	698	, SchemaEntry("ifctextstylefontmodel",&STEP::ObjectHelper<NotImplemented,0>::Construct )
727		, SchemaEntry("ifcstackterminaltype",&STEP::ObjectHelper<IfcStackTerminalType,1>::Construct )
728		, SchemaEntry("ifcapprovalpropertyrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
729		, SchemaEntry("ifcexternallydefinedsymbol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
730		, SchemaEntry("ifcreinforcingelement",&STEP::ObjectHelper<IfcReinforcingElement,1>::Construct )
731		, SchemaEntry("ifcreinforcingmesh",&STEP::ObjectHelper<IfcReinforcingMesh,8>::Construct )
732		, SchemaEntry("ifcorderaction",&STEP::ObjectHelper<IfcOrderAction,1>::Construct )
733		, SchemaEntry("ifcrelcoversbldgelements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
734		, SchemaEntry("ifclightsource",&STEP::ObjectHelper<IfcLightSource,4>::Construct )
735		, SchemaEntry("ifclightsourcedirectional",&STEP::ObjectHelper<IfcLightSourceDirectional,1>::Construct )
736		, SchemaEntry("ifcloop",&STEP::ObjectHelper<IfcLoop,0>::Construct )
737		, SchemaEntry("ifcvertexloop",&STEP::ObjectHelper<IfcVertexLoop,1>::Construct )
738		, SchemaEntry("ifcchamferedgefeature",&STEP::ObjectHelper<IfcChamferEdgeFeature,2>::Construct )
739		, SchemaEntry("ifcwindowpanelproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
740		, SchemaEntry("ifcclassification",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	699	, SchemaEntry("ifcsurfacestyleshading",&STEP::ObjectHelper<IfcSurfaceStyleShading,1>::Construct )
	700	, SchemaEntry("ifcpumptype",&STEP::ObjectHelper<IfcPumpType,1>::Construct )
	701	, SchemaEntry("ifcdefinedsymbol",&STEP::ObjectHelper<IfcDefinedSymbol,2>::Construct )
	702	, SchemaEntry("ifcclassificationitemrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	703	, SchemaEntry("ifcgeneralmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
741	704	, SchemaEntry("ifcelementcomponenttype",&STEP::ObjectHelper<IfcElementComponentType,0>::Construct )
742	705	, SchemaEntry("ifcfastenertype",&STEP::ObjectHelper<IfcFastenerType,0>::Construct )
743	706	, SchemaEntry("ifcmechanicalfastenertype",&STEP::ObjectHelper<IfcMechanicalFastenerType,0>::Construct )
	707	, SchemaEntry("ifcpermeablecoveringproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	708	, SchemaEntry("ifcflowfitting",&STEP::ObjectHelper<IfcFlowFitting,0>::Construct )
	709	, SchemaEntry("ifcapproval",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	710	, SchemaEntry("ifcshapeaspect",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	711	, SchemaEntry("ifcconstraintclassificationrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	712	, SchemaEntry("ifclightsourcedirectional",&STEP::ObjectHelper<IfcLightSourceDirectional,1>::Construct )
	713	, SchemaEntry("ifcsurfacestyle",&STEP::ObjectHelper<IfcSurfaceStyle,2>::Construct )
	714	, SchemaEntry("ifcrelconnectsstructuralactivity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	715	, SchemaEntry("ifcrelassociatesprofileproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	716	, SchemaEntry("ifcannotationsurface",&STEP::ObjectHelper<IfcAnnotationSurface,2>::Construct )
	717	, SchemaEntry("ifcfuelproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	718	, SchemaEntry("ifcflowcontroller",&STEP::ObjectHelper<IfcFlowController,0>::Construct )
	719	, SchemaEntry("ifcfailureconnectioncondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	720	, SchemaEntry("ifcbuildingstorey",&STEP::ObjectHelper<IfcBuildingStorey,1>::Construct )
	721	, SchemaEntry("ifcworkcontrol",&STEP::ObjectHelper<IfcWorkControl,10>::Construct )
	722	, SchemaEntry("ifcworkschedule",&STEP::ObjectHelper<IfcWorkSchedule,0>::Construct )
	723	, SchemaEntry("ifctable",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	724	, SchemaEntry("ifcductsegmenttype",&STEP::ObjectHelper<IfcDuctSegmentType,1>::Construct )
	725	, SchemaEntry("ifcstructuralsteelprofileproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	726	, SchemaEntry("ifcdraughtingpredefinedtextfont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	727	, SchemaEntry("ifcface",&STEP::ObjectHelper<IfcFace,1>::Construct )
	728	, SchemaEntry("ifcstructuralsurfacemember",&STEP::ObjectHelper<IfcStructuralSurfaceMember,2>::Construct )
	729	, SchemaEntry("ifcstructuralsurfacemembervarying",&STEP::ObjectHelper<IfcStructuralSurfaceMemberVarying,2>::Construct )
	730	, SchemaEntry("ifcfacesurface",&STEP::ObjectHelper<IfcFaceSurface,2>::Construct )
	731	, SchemaEntry("ifcclassification",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	732	, SchemaEntry("ifcmateriallist",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	733	, SchemaEntry("ifccostschedule",&STEP::ObjectHelper<IfcCostSchedule,8>::Construct )
	734	, SchemaEntry("ifccoordinateduniversaltimeoffset",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	735	, SchemaEntry("ifcplanarextent",&STEP::ObjectHelper<IfcPlanarExtent,2>::Construct )
	736	, SchemaEntry("ifcplanarbox",&STEP::ObjectHelper<IfcPlanarBox,1>::Construct )
	737	, SchemaEntry("ifcfillareastyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	738	, SchemaEntry("ifcsectionreinforcementproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	739	, SchemaEntry("ifccolourspecification",&STEP::ObjectHelper<IfcColourSpecification,1>::Construct )
	740	, SchemaEntry("ifcvector",&STEP::ObjectHelper<IfcVector,2>::Construct )
	741	, SchemaEntry("ifcbeam",&STEP::ObjectHelper<IfcBeam,0>::Construct )
	742	, SchemaEntry("ifccolourrgb",&STEP::ObjectHelper<IfcColourRgb,3>::Construct )
	743	, SchemaEntry("ifcstructuralplanaraction",&STEP::ObjectHelper<IfcStructuralPlanarAction,1>::Construct )
	744	, SchemaEntry("ifcstructuralplanaractionvarying",&STEP::ObjectHelper<IfcStructuralPlanarActionVarying,2>::Construct )
	745	, SchemaEntry("ifcsite",&STEP::ObjectHelper<IfcSite,5>::Construct )
	746	, SchemaEntry("ifcdiscreteaccessorytype",&STEP::ObjectHelper<IfcDiscreteAccessoryType,0>::Construct )
	747	, SchemaEntry("ifcvibrationisolatortype",&STEP::ObjectHelper<IfcVibrationIsolatorType,1>::Construct )
	748	, SchemaEntry("ifcevaporativecoolertype",&STEP::ObjectHelper<IfcEvaporativeCoolerType,1>::Construct )
	749	, SchemaEntry("ifcdistributionchamberelementtype",&STEP::ObjectHelper<IfcDistributionChamberElementType,1>::Construct )
	750	, SchemaEntry("ifcfeatureelementaddition",&STEP::ObjectHelper<IfcFeatureElementAddition,0>::Construct )
	751	, SchemaEntry("ifcrelassignstoresource",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	752	, SchemaEntry("ifcstructureddimensioncallout",&STEP::ObjectHelper<IfcStructuredDimensionCallout,0>::Construct )
	753	, SchemaEntry("ifccoolingtowertype",&STEP::ObjectHelper<IfcCoolingTowerType,1>::Construct )
	754	, SchemaEntry("ifccenterlineprofiledef",&STEP::ObjectHelper<IfcCenterLineProfileDef,1>::Construct )
	755	, SchemaEntry("ifctexturevertex",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	756	, SchemaEntry("ifcorganization",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	757	, SchemaEntry("ifcwindowstyle",&STEP::ObjectHelper<IfcWindowStyle,4>::Construct )
	758	, SchemaEntry("ifclightsourcegoniometric",&STEP::ObjectHelper<IfcLightSourceGoniometric,6>::Construct )
	759	, SchemaEntry("ifcribplateprofileproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	760	, SchemaEntry("ifctransformertype",&STEP::ObjectHelper<IfcTransformerType,1>::Construct )
	761	, SchemaEntry("ifcmembertype",&STEP::ObjectHelper<IfcMemberType,1>::Construct )
	762	, SchemaEntry("ifcsurfaceoflinearextrusion",&STEP::ObjectHelper<IfcSurfaceOfLinearExtrusion,2>::Construct )
	763	, SchemaEntry("ifcmotorconnectiontype",&STEP::ObjectHelper<IfcMotorConnectionType,1>::Construct )
	764	, SchemaEntry("ifcflowtreatmentdevicetype",&STEP::ObjectHelper<IfcFlowTreatmentDeviceType,0>::Construct )
	765	, SchemaEntry("ifcductsilencertype",&STEP::ObjectHelper<IfcDuctSilencerType,1>::Construct )
	766	, SchemaEntry("ifcwindowliningproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	767	, SchemaEntry("ifcfurnishingelementtype",&STEP::ObjectHelper<IfcFurnishingElementType,0>::Construct )
	768	, SchemaEntry("ifcsystemfurnitureelementtype",&STEP::ObjectHelper<IfcSystemFurnitureElementType,0>::Construct )
	769	, SchemaEntry("ifcconnectionpointeccentricity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	770	, SchemaEntry("ifcwasteterminaltype",&STEP::ObjectHelper<IfcWasteTerminalType,1>::Construct )
	771	, SchemaEntry("ifcbsplinecurve",&STEP::ObjectHelper<IfcBSplineCurve,5>::Construct )
	772	, SchemaEntry("ifcbeziercurve",&STEP::ObjectHelper<IfcBezierCurve,0>::Construct )
	773	, SchemaEntry("ifcdocumentinformationrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	774	, SchemaEntry("ifcactuatortype",&STEP::ObjectHelper<IfcActuatorType,1>::Construct )
	775	, SchemaEntry("ifcdistributioncontrolelement",&STEP::ObjectHelper<IfcDistributionControlElement,1>::Construct )
	776	, SchemaEntry("ifcannotation",&STEP::ObjectHelper<IfcAnnotation,0>::Construct )
	777	, SchemaEntry("ifcrelassociatesdocument",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	778	, SchemaEntry("ifcdoorliningproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	779	, SchemaEntry("ifcshellbasedsurfacemodel",&STEP::ObjectHelper<IfcShellBasedSurfaceModel,1>::Construct )
	780	, SchemaEntry("ifcactionrequest",&STEP::ObjectHelper<IfcActionRequest,1>::Construct )
	781	, SchemaEntry("ifcextrudedareasolid",&STEP::ObjectHelper<IfcExtrudedAreaSolid,2>::Construct )
	782	, SchemaEntry("ifcsystem",&STEP::ObjectHelper<IfcSystem,0>::Construct )
	783	, SchemaEntry("ifcfillareastylehatching",&STEP::ObjectHelper<IfcFillAreaStyleHatching,5>::Construct )
	784	, SchemaEntry("ifcrelvoidselement",&STEP::ObjectHelper<IfcRelVoidsElement,2>::Construct )
	785	, SchemaEntry("ifcrelconnectspathelements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	786	, SchemaEntry("ifcrelspaceboundary",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	787	, SchemaEntry("ifcsurfacecurvesweptareasolid",&STEP::ObjectHelper<IfcSurfaceCurveSweptAreaSolid,4>::Construct )
	788	, SchemaEntry("ifccartesiantransformationoperator3dnonuniform",&STEP::ObjectHelper<IfcCartesianTransformationOperator3DnonUniform,2>::Construct )
	789	, SchemaEntry("ifcrelinteractionrequirements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	790	, SchemaEntry("ifccurtainwalltype",&STEP::ObjectHelper<IfcCurtainWallType,1>::Construct )
	791	, SchemaEntry("ifcquantitylength",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	792	, SchemaEntry("ifcequipmentstandard",&STEP::ObjectHelper<IfcEquipmentStandard,0>::Construct )
	793	, SchemaEntry("ifcflowstoragedevicetype",&STEP::ObjectHelper<IfcFlowStorageDeviceType,0>::Construct )
	794	, SchemaEntry("ifcvirtualgridintersection",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	795	, SchemaEntry("ifcdiameterdimension",&STEP::ObjectHelper<IfcDiameterDimension,0>::Construct )
	796	, SchemaEntry("ifcswitchingdevicetype",&STEP::ObjectHelper<IfcSwitchingDeviceType,1>::Construct )
	797	, SchemaEntry("ifcaddress",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	798	, SchemaEntry("ifctelecomaddress",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	799	, SchemaEntry("ifcwindow",&STEP::ObjectHelper<IfcWindow,2>::Construct )
	800	, SchemaEntry("ifcmechanicalsteelmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	801	, SchemaEntry("ifcflowtreatmentdevice",&STEP::ObjectHelper<IfcFlowTreatmentDevice,0>::Construct )
	802	, SchemaEntry("ifcrelservicesbuildings",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	803	, SchemaEntry("ifcchillertype",&STEP::ObjectHelper<IfcChillerType,1>::Construct )
	804	, SchemaEntry("ifcrelassignstoproduct",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	805	, SchemaEntry("ifcrectanglehollowprofiledef",&STEP::ObjectHelper<IfcRectangleHollowProfileDef,3>::Construct )
	806	, SchemaEntry("ifcenergyproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	807	, SchemaEntry("ifcboxedhalfspace",&STEP::ObjectHelper<IfcBoxedHalfSpace,1>::Construct )
	808	, SchemaEntry("ifcaxis2placement2d",&STEP::ObjectHelper<IfcAxis2Placement2D,1>::Construct )
	809	, SchemaEntry("ifcspaceprogram",&STEP::ObjectHelper<IfcSpaceProgram,5>::Construct )
	810	, SchemaEntry("ifcpoint",&STEP::ObjectHelper<IfcPoint,0>::Construct )
	811	, SchemaEntry("ifccartesianpoint",&STEP::ObjectHelper<IfcCartesianPoint,1>::Construct )
	812	, SchemaEntry("ifcboundedsurface",&STEP::ObjectHelper<IfcBoundedSurface,0>::Construct )
	813	, SchemaEntry("ifcloop",&STEP::ObjectHelper<IfcLoop,0>::Construct )
	814	, SchemaEntry("ifcpolyloop",&STEP::ObjectHelper<IfcPolyLoop,1>::Construct )
	815	, SchemaEntry("ifcpredefinedpointmarkersymbol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	816	, SchemaEntry("ifcterminatorsymbol",&STEP::ObjectHelper<IfcTerminatorSymbol,1>::Construct )
	817	, SchemaEntry("ifcdimensioncurveterminator",&STEP::ObjectHelper<IfcDimensionCurveTerminator,1>::Construct )
	818	, SchemaEntry("ifcrelprojectselement",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	819	, SchemaEntry("ifctrapeziumprofiledef",&STEP::ObjectHelper<IfcTrapeziumProfileDef,4>::Construct )
	820	, SchemaEntry("ifcrepresentationcontext",&STEP::ObjectHelper<IfcRepresentationContext,2>::Construct )
	821	, SchemaEntry("ifcgeometricrepresentationcontext",&STEP::ObjectHelper<IfcGeometricRepresentationContext,4>::Construct )
	822	, SchemaEntry("ifctextstylewithboxcharacteristics",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	823	, SchemaEntry("ifccurveboundedplane",&STEP::ObjectHelper<IfcCurveBoundedPlane,3>::Construct )
	824	, SchemaEntry("ifcquantitycount",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	825	, SchemaEntry("ifctimeseriesreferencerelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	826	, SchemaEntry("ifcstructuralloadtemperature",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	827	, SchemaEntry("ifcsiunit",&STEP::ObjectHelper<IfcSIUnit,2>::Construct )
	828	, SchemaEntry("ifcstructuralreaction",&STEP::ObjectHelper<IfcStructuralReaction,0>::Construct )
	829	, SchemaEntry("ifcstructuralpointreaction",&STEP::ObjectHelper<IfcStructuralPointReaction,0>::Construct )
	830	, SchemaEntry("ifcaxis1placement",&STEP::ObjectHelper<IfcAxis1Placement,1>::Construct )
	831	, SchemaEntry("ifcreinforcementdefinitionproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	832	, SchemaEntry("ifcelectricappliancetype",&STEP::ObjectHelper<IfcElectricApplianceType,1>::Construct )
	833	, SchemaEntry("ifcsensortype",&STEP::ObjectHelper<IfcSensorType,1>::Construct )
	834	, SchemaEntry("ifcfurnishingelement",&STEP::ObjectHelper<IfcFurnishingElement,0>::Construct )
	835	, SchemaEntry("ifcprotectivedevicetype",&STEP::ObjectHelper<IfcProtectiveDeviceType,1>::Construct )
	836	, SchemaEntry("ifczshapeprofiledef",&STEP::ObjectHelper<IfcZShapeProfileDef,6>::Construct )
744	837	, SchemaEntry("ifcscheduletimecontrol",&STEP::ObjectHelper<IfcScheduleTimeControl,18>::Construct )
745		, SchemaEntry("ifcsurfacestyle",&STEP::ObjectHelper<IfcSurfaceStyle,2>::Construct )
746		, SchemaEntry("ifcreinforcementbarproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
747		, SchemaEntry("ifcopenshell",&STEP::ObjectHelper<IfcOpenShell,0>::Construct )
748		, SchemaEntry("ifclibraryreference",&STEP::ObjectHelper<NotImplemented,0>::Construct )
749		, SchemaEntry("ifcsubcontractresource",&STEP::ObjectHelper<IfcSubContractResource,2>::Construct )
750		, SchemaEntry("ifctimeseriesreferencerelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
751		, SchemaEntry("ifcsweptdisksolid",&STEP::ObjectHelper<IfcSweptDiskSolid,5>::Construct )
752		, SchemaEntry("ifccompositeprofiledef",&STEP::ObjectHelper<IfcCompositeProfileDef,2>::Construct )
	838	, SchemaEntry("ifcrepresentationmap",&STEP::ObjectHelper<IfcRepresentationMap,2>::Construct )
	839	, SchemaEntry("ifcclosedshell",&STEP::ObjectHelper<IfcClosedShell,0>::Construct )
	840	, SchemaEntry("ifcbuildingelementpart",&STEP::ObjectHelper<IfcBuildingElementPart,0>::Construct )
	841	, SchemaEntry("ifcdraughtingpredefinedcolour",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	842	, SchemaEntry("ifcpostaladdress",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	843	, SchemaEntry("ifcblock",&STEP::ObjectHelper<IfcBlock,3>::Construct )
	844	, SchemaEntry("ifclightfixturetype",&STEP::ObjectHelper<IfcLightFixtureType,1>::Construct )
	845	, SchemaEntry("ifcopeningelement",&STEP::ObjectHelper<IfcOpeningElement,0>::Construct )
	846	, SchemaEntry("ifclightsourcespot",&STEP::ObjectHelper<IfcLightSourceSpot,4>::Construct )
	847	, SchemaEntry("ifctendonanchor",&STEP::ObjectHelper<IfcTendonAnchor,0>::Construct )
	848	, SchemaEntry("ifcsurfacestylerefraction",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	849	, SchemaEntry("ifcelectricflowstoragedevicetype",&STEP::ObjectHelper<IfcElectricFlowStorageDeviceType,1>::Construct )
	850	, SchemaEntry("ifcfluidflowproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	851	, SchemaEntry("ifcsphere",&STEP::ObjectHelper<IfcSphere,1>::Construct )
	852	, SchemaEntry("ifcrelassociatesappliedvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	853	, SchemaEntry("ifcdampertype",&STEP::ObjectHelper<IfcDamperType,1>::Construct )
	854	, SchemaEntry("ifcprojectorderrecord",&STEP::ObjectHelper<IfcProjectOrderRecord,2>::Construct )
	855	, SchemaEntry("ifcdimensionalexponents",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	856	, SchemaEntry("ifcreldefinesbytype",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	857	, SchemaEntry("ifcdistributionchamberelement",&STEP::ObjectHelper<IfcDistributionChamberElement,0>::Construct )
	858	, SchemaEntry("ifcmechanicalfastener",&STEP::ObjectHelper<IfcMechanicalFastener,2>::Construct )
	859	, SchemaEntry("ifcquantityvolume",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	860	, SchemaEntry("ifcrectangulartrimmedsurface",&STEP::ObjectHelper<IfcRectangularTrimmedSurface,7>::Construct )
	861	, SchemaEntry("ifcdateandtime",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	862	, SchemaEntry("ifczone",&STEP::ObjectHelper<IfcZone,0>::Construct )
	863	, SchemaEntry("ifcfantype",&STEP::ObjectHelper<IfcFanType,1>::Construct )
	864	, SchemaEntry("ifcgeometricset",&STEP::ObjectHelper<IfcGeometricSet,1>::Construct )
	865	, SchemaEntry("ifcfillareastyletiles",&STEP::ObjectHelper<IfcFillAreaStyleTiles,3>::Construct )
	866	, SchemaEntry("ifcpixeltexture",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	867	, SchemaEntry("ifccablesegmenttype",&STEP::ObjectHelper<IfcCableSegmentType,1>::Construct )
	868	, SchemaEntry("ifcreloverridesproperties",&STEP::ObjectHelper<IfcRelOverridesProperties,1>::Construct )
	869	, SchemaEntry("ifcmeasurewithunit",&STEP::ObjectHelper<IfcMeasureWithUnit,2>::Construct )
	870	, SchemaEntry("ifcslabtype",&STEP::ObjectHelper<IfcSlabType,1>::Construct )
	871	, SchemaEntry("ifcservicelife",&STEP::ObjectHelper<IfcServiceLife,2>::Construct )
	872	, SchemaEntry("ifcfurnituretype",&STEP::ObjectHelper<IfcFurnitureType,1>::Construct )
	873	, SchemaEntry("ifccostitem",&STEP::ObjectHelper<IfcCostItem,0>::Construct )
	874	, SchemaEntry("ifcreinforcingmesh",&STEP::ObjectHelper<IfcReinforcingMesh,8>::Construct )
	875	, SchemaEntry("ifcextendedmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	876	, SchemaEntry("ifcactorrole",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	877	, SchemaEntry("ifcfacetedbrepwithvoids",&STEP::ObjectHelper<IfcFacetedBrepWithVoids,1>::Construct )
	878	, SchemaEntry("ifcconstraintaggregationrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	879	, SchemaEntry("ifcgasterminaltype",&STEP::ObjectHelper<IfcGasTerminalType,1>::Construct )
	880	, SchemaEntry("ifcrelconnectswitheccentricity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	881	, SchemaEntry("ifcpile",&STEP::ObjectHelper<IfcPile,2>::Construct )
	882	, SchemaEntry("ifcfillareastyletilesymbolwithstyle",&STEP::ObjectHelper<IfcFillAreaStyleTileSymbolWithStyle,1>::Construct )
753	883	, SchemaEntry("ifcelectricalbaseproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
754		, SchemaEntry("ifcpredefinedpointmarkersymbol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
755		, SchemaEntry("ifctanktype",&STEP::ObjectHelper<IfcTankType,1>::Construct )
	884	, SchemaEntry("ifcconstructionmaterialresource",&STEP::ObjectHelper<IfcConstructionMaterialResource,2>::Construct )
	885	, SchemaEntry("ifcannotationcurveoccurrence",&STEP::ObjectHelper<IfcAnnotationCurveOccurrence,0>::Construct )
	886	, SchemaEntry("ifcdimensioncurve",&STEP::ObjectHelper<IfcDimensionCurve,0>::Construct )
	887	, SchemaEntry("ifcgeometriccurveset",&STEP::ObjectHelper<IfcGeometricCurveSet,0>::Construct )
	888	, SchemaEntry("ifcrelaggregates",&STEP::ObjectHelper<IfcRelAggregates,0>::Construct )
	889	, SchemaEntry("ifcfacebasedsurfacemodel",&STEP::ObjectHelper<IfcFaceBasedSurfaceModel,1>::Construct )
	890	, SchemaEntry("ifcenergyconversiondevice",&STEP::ObjectHelper<IfcEnergyConversionDevice,0>::Construct )
	891	, SchemaEntry("ifcrampflight",&STEP::ObjectHelper<IfcRampFlight,0>::Construct )
	892	, SchemaEntry("ifcpropertyenumeration",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	893	, SchemaEntry("ifcvertexloop",&STEP::ObjectHelper<IfcVertexLoop,1>::Construct )
	894	, SchemaEntry("ifcplate",&STEP::ObjectHelper<IfcPlate,0>::Construct )
	895	, SchemaEntry("ifcushapeprofiledef",&STEP::ObjectHelper<IfcUShapeProfileDef,8>::Construct )
	896	, SchemaEntry("ifchygroscopicmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	897	, SchemaEntry("ifcfacebound",&STEP::ObjectHelper<IfcFaceBound,2>::Construct )
	898	, SchemaEntry("ifcfaceouterbound",&STEP::ObjectHelper<IfcFaceOuterBound,0>::Construct )
	899	, SchemaEntry("ifconedirectionrepeatfactor",&STEP::ObjectHelper<IfcOneDirectionRepeatFactor,1>::Construct )
	900	, SchemaEntry("ifcboilertype",&STEP::ObjectHelper<IfcBoilerType,1>::Construct )
	901	, SchemaEntry("ifcconstructionequipmentresource",&STEP::ObjectHelper<IfcConstructionEquipmentResource,0>::Construct )
	902	, SchemaEntry("ifccomplexproperty",&STEP::ObjectHelper<IfcComplexProperty,2>::Construct )
	903	, SchemaEntry("ifcfooting",&STEP::ObjectHelper<IfcFooting,1>::Construct )
	904	, SchemaEntry("ifcopticalmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	905	, SchemaEntry("ifcconstructionproductresource",&STEP::ObjectHelper<IfcConstructionProductResource,0>::Construct )
	906	, SchemaEntry("ifcboundaryedgecondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	907	, SchemaEntry("ifcderivedprofiledef",&STEP::ObjectHelper<IfcDerivedProfileDef,3>::Construct )
	908	, SchemaEntry("ifcpropertytablevalue",&STEP::ObjectHelper<IfcPropertyTableValue,5>::Construct )
	909	, SchemaEntry("ifcrelassignstogroup",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	910	, SchemaEntry("ifcflowmetertype",&STEP::ObjectHelper<IfcFlowMeterType,1>::Construct )
	911	, SchemaEntry("ifcdoorstyle",&STEP::ObjectHelper<IfcDoorStyle,4>::Construct )
	912	, SchemaEntry("ifcrelconnectsporttoelement",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	913	, SchemaEntry("ifcrelassociatesclassification",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	914	, SchemaEntry("ifcunitassignment",&STEP::ObjectHelper<IfcUnitAssignment,1>::Construct )
	915	, SchemaEntry("ifcflowterminal",&STEP::ObjectHelper<IfcFlowTerminal,0>::Construct )
	916	, SchemaEntry("ifccranerailfshapeprofiledef",&STEP::ObjectHelper<IfcCraneRailFShapeProfileDef,9>::Construct )
	917	, SchemaEntry("ifcflowsegment",&STEP::ObjectHelper<IfcFlowSegment,0>::Construct )
	918	, SchemaEntry("ifcelementquantity",&STEP::ObjectHelper<IfcElementQuantity,2>::Construct )
756	919	, SchemaEntry("ifcboundarynodecondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
757	920	, SchemaEntry("ifcboundarynodeconditionwarping",&STEP::ObjectHelper<NotImplemented,0>::Construct )
758		, SchemaEntry("ifcrelassignstogroup",&STEP::ObjectHelper<NotImplemented,0>::Construct )
759		, SchemaEntry("ifcpresentationlayerassignment",&STEP::ObjectHelper<NotImplemented,0>::Construct )
760		, SchemaEntry("ifcsphere",&STEP::ObjectHelper<IfcSphere,1>::Construct )
761		, SchemaEntry("ifcpolyloop",&STEP::ObjectHelper<IfcPolyLoop,1>::Construct )
762		, SchemaEntry("ifccablecarrierfittingtype",&STEP::ObjectHelper<IfcCableCarrierFittingType,1>::Construct )
763		, SchemaEntry("ifchumidifiertype",&STEP::ObjectHelper<IfcHumidifierType,1>::Construct )
764		, SchemaEntry("ifcpropertylistvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
765		, SchemaEntry("ifcpropertyconstraintrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
766		, SchemaEntry("ifcperformancehistory",&STEP::ObjectHelper<IfcPerformanceHistory,1>::Construct )
767		, SchemaEntry("ifcshapemodel",&STEP::ObjectHelper<IfcShapeModel,0>::Construct )
768		, SchemaEntry("ifctopologyrepresentation",&STEP::ObjectHelper<IfcTopologyRepresentation,0>::Construct )
769		, SchemaEntry("ifcbuilding",&STEP::ObjectHelper<IfcBuilding,3>::Construct )
770		, SchemaEntry("ifcroundedrectangleprofiledef",&STEP::ObjectHelper<IfcRoundedRectangleProfileDef,1>::Construct )
	921	, SchemaEntry("ifccurtainwall",&STEP::ObjectHelper<IfcCurtainWall,0>::Construct )
	922	, SchemaEntry("ifcdiscreteaccessory",&STEP::ObjectHelper<IfcDiscreteAccessory,0>::Construct )
	923	, SchemaEntry("ifcgrid",&STEP::ObjectHelper<IfcGrid,3>::Construct )
	924	, SchemaEntry("ifcsanitaryterminaltype",&STEP::ObjectHelper<IfcSanitaryTerminalType,1>::Construct )
	925	, SchemaEntry("ifcsoundproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	926	, SchemaEntry("ifcsubedge",&STEP::ObjectHelper<IfcSubedge,1>::Construct )
	927	, SchemaEntry("ifctextstyletextmodel",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	928	, SchemaEntry("ifcfiltertype",&STEP::ObjectHelper<IfcFilterType,1>::Construct )
	929	, SchemaEntry("ifcsymbolstyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	930	, SchemaEntry("ifctendon",&STEP::ObjectHelper<IfcTendon,8>::Construct )
	931	, SchemaEntry("ifcdimensionpair",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	932	, SchemaEntry("ifcstructuralloadgroup",&STEP::ObjectHelper<IfcStructuralLoadGroup,5>::Construct )
	933	, SchemaEntry("ifcpresentationstyleassignment",&STEP::ObjectHelper<IfcPresentationStyleAssignment,1>::Construct )
	934	, SchemaEntry("ifcregulartimeseries",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	935	, SchemaEntry("ifcstructuralcurvemember",&STEP::ObjectHelper<IfcStructuralCurveMember,1>::Construct )
	936	, SchemaEntry("ifclightsourceambient",&STEP::ObjectHelper<IfcLightSourceAmbient,0>::Construct )
	937	, SchemaEntry("ifccondition",&STEP::ObjectHelper<IfcCondition,0>::Construct )
	938	, SchemaEntry("ifcport",&STEP::ObjectHelper<IfcPort,0>::Construct )
	939	, SchemaEntry("ifcspace",&STEP::ObjectHelper<IfcSpace,2>::Construct )
	940	, SchemaEntry("ifcheatexchangertype",&STEP::ObjectHelper<IfcHeatExchangerType,1>::Construct )
	941	, SchemaEntry("ifctanktype",&STEP::ObjectHelper<IfcTankType,1>::Construct )
	942	, SchemaEntry("ifcinventory",&STEP::ObjectHelper<IfcInventory,6>::Construct )
	943	, SchemaEntry("ifctextstyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	944	, SchemaEntry("ifcappliedvaluerelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	945	, SchemaEntry("ifcsoundvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	946	, SchemaEntry("ifctransportelementtype",&STEP::ObjectHelper<IfcTransportElementType,1>::Construct )
	947	, SchemaEntry("ifcairtoairheatrecoverytype",&STEP::ObjectHelper<IfcAirToAirHeatRecoveryType,1>::Construct )
771	948	, SchemaEntry("ifcstairflight",&STEP::ObjectHelper<IfcStairFlight,4>::Construct )
772		, SchemaEntry("ifcsurfacestylerefraction",&STEP::ObjectHelper<NotImplemented,0>::Construct )
773		, SchemaEntry("ifcrelinteractionrequirements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
774		, SchemaEntry("ifcconstraint",&STEP::ObjectHelper<NotImplemented,0>::Construct )
775		, SchemaEntry("ifcobjective",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	949	, SchemaEntry("ifcelectricalelement",&STEP::ObjectHelper<IfcElectricalElement,0>::Construct )
	950	, SchemaEntry("ifclightintensitydistribution",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	951	, SchemaEntry("ifcclassificationreference",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	952	, SchemaEntry("ifcsurfacestylewithtextures",&STEP::ObjectHelper<IfcSurfaceStyleWithTextures,1>::Construct )
	953	, SchemaEntry("ifcboundingbox",&STEP::ObjectHelper<IfcBoundingBox,4>::Construct )
	954	, SchemaEntry("ifcapplication",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	955	, SchemaEntry("ifcwalltype",&STEP::ObjectHelper<IfcWallType,1>::Construct )
	956	, SchemaEntry("ifcmove",&STEP::ObjectHelper<IfcMove,3>::Construct )
	957	, SchemaEntry("ifccircle",&STEP::ObjectHelper<IfcCircle,1>::Construct )
	958	, SchemaEntry("ifcoffsetcurve2d",&STEP::ObjectHelper<IfcOffsetCurve2D,3>::Construct )
	959	, SchemaEntry("ifcmateriallayersetusage",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	960	, SchemaEntry("ifcpointoncurve",&STEP::ObjectHelper<IfcPointOnCurve,2>::Construct )
	961	, SchemaEntry("ifcstructuralresultgroup",&STEP::ObjectHelper<IfcStructuralResultGroup,3>::Construct )
	962	, SchemaEntry("ifcsectionedspine",&STEP::ObjectHelper<IfcSectionedSpine,3>::Construct )
	963	, SchemaEntry("ifcslab",&STEP::ObjectHelper<IfcSlab,1>::Construct )
776	964	, SchemaEntry("ifcconnectionportgeometry",&STEP::ObjectHelper<NotImplemented,0>::Construct )
777		, SchemaEntry("ifcdistributionchamberelement",&STEP::ObjectHelper<IfcDistributionChamberElement,0>::Construct )
	965	, SchemaEntry("ifcquantityweight",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	966	, SchemaEntry("ifcrelassociatesmaterial",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	967	, SchemaEntry("ifcvertex",&STEP::ObjectHelper<IfcVertex,0>::Construct )
	968	, SchemaEntry("ifcvertexpoint",&STEP::ObjectHelper<IfcVertexPoint,1>::Construct )
	969	, SchemaEntry("ifcreferencesvaluedocument",&STEP::ObjectHelper<NotImplemented,0>::Construct )
778	970	, SchemaEntry("ifcpersonandorganization",&STEP::ObjectHelper<NotImplemented,0>::Construct )
779		, SchemaEntry("ifcshaperepresentation",&STEP::ObjectHelper<IfcShapeRepresentation,0>::Construct )
780		, SchemaEntry("ifcrampflight",&STEP::ObjectHelper<IfcRampFlight,0>::Construct )
781		, SchemaEntry("ifcbeamtype",&STEP::ObjectHelper<IfcBeamType,1>::Construct )
782		, SchemaEntry("ifcreldecomposes",&STEP::ObjectHelper<IfcRelDecomposes,2>::Construct )
783		, SchemaEntry("ifcroof",&STEP::ObjectHelper<IfcRoof,1>::Construct )
784		, SchemaEntry("ifcfooting",&STEP::ObjectHelper<IfcFooting,1>::Construct )
785		, SchemaEntry("ifcrelcoversspaces",&STEP::ObjectHelper<NotImplemented,0>::Construct )
786		, SchemaEntry("ifclightsourceambient",&STEP::ObjectHelper<IfcLightSourceAmbient,0>::Construct )
787		, SchemaEntry("ifctimeseriesvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
788		, SchemaEntry("ifcwindowstyle",&STEP::ObjectHelper<IfcWindowStyle,4>::Construct )
789		, SchemaEntry("ifcpropertyreferencevalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
790		, SchemaEntry("ifcapproval",&STEP::ObjectHelper<NotImplemented,0>::Construct )
791		, SchemaEntry("ifcrelconnectsstructuralelement",&STEP::ObjectHelper<NotImplemented,0>::Construct )
792		, SchemaEntry("ifcbuildingelementproxytype",&STEP::ObjectHelper<IfcBuildingElementProxyType,1>::Construct )
793		, SchemaEntry("ifcrelassociatesprofileproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
794		, SchemaEntry("ifcaxis2placement3d",&STEP::ObjectHelper<IfcAxis2Placement3D,2>::Construct )
795		, SchemaEntry("ifcrelconnectsports",&STEP::ObjectHelper<NotImplemented,0>::Construct )
796		, SchemaEntry("ifcedgecurve",&STEP::ObjectHelper<IfcEdgeCurve,2>::Construct )
797		, SchemaEntry("ifcclosedshell",&STEP::ObjectHelper<IfcClosedShell,0>::Construct )
798		, SchemaEntry("ifctendonanchor",&STEP::ObjectHelper<IfcTendonAnchor,0>::Construct )
799		, SchemaEntry("ifccondensertype",&STEP::ObjectHelper<IfcCondenserType,1>::Construct )
800		, SchemaEntry("ifcquantitytime",&STEP::ObjectHelper<NotImplemented,0>::Construct )
801		, SchemaEntry("ifcsurfacetexture",&STEP::ObjectHelper<NotImplemented,0>::Construct )
802		, SchemaEntry("ifcpixeltexture",&STEP::ObjectHelper<NotImplemented,0>::Construct )
803		, SchemaEntry("ifcstructuralconnectioncondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
804		, SchemaEntry("ifcfailureconnectioncondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
805		, SchemaEntry("ifcdocumentreference",&STEP::ObjectHelper<NotImplemented,0>::Construct )
806		, SchemaEntry("ifcmechanicalsteelmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
807		, SchemaEntry("ifcpipesegmenttype",&STEP::ObjectHelper<IfcPipeSegmentType,1>::Construct )
808		, SchemaEntry("ifcpointonsurface",&STEP::ObjectHelper<IfcPointOnSurface,3>::Construct )
809		, SchemaEntry("ifctable",&STEP::ObjectHelper<NotImplemented,0>::Construct )
810		, SchemaEntry("ifclightdistributiondata",&STEP::ObjectHelper<NotImplemented,0>::Construct )
811		, SchemaEntry("ifcpropertytablevalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
812		, SchemaEntry("ifcpresentationlayerwithstyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
813		, SchemaEntry("ifcasset",&STEP::ObjectHelper<IfcAsset,9>::Construct )
814		, SchemaEntry("ifclightsourcepositional",&STEP::ObjectHelper<IfcLightSourcePositional,5>::Construct )
815		, SchemaEntry("ifclibraryinformation",&STEP::ObjectHelper<NotImplemented,0>::Construct )
816		, SchemaEntry("ifctextstyletextmodel",&STEP::ObjectHelper<NotImplemented,0>::Construct )
817		, SchemaEntry("ifcprojectioncurve",&STEP::ObjectHelper<IfcProjectionCurve,0>::Construct )
818		, SchemaEntry("ifcfillareastyletiles",&STEP::ObjectHelper<IfcFillAreaStyleTiles,3>::Construct )
819		, SchemaEntry("ifcrelfillselement",&STEP::ObjectHelper<IfcRelFillsElement,2>::Construct )
820		, SchemaEntry("ifcelectricmotortype",&STEP::ObjectHelper<IfcElectricMotorType,1>::Construct )
821		, SchemaEntry("ifctendon",&STEP::ObjectHelper<IfcTendon,8>::Construct )
822		, SchemaEntry("ifcdistributionchamberelementtype",&STEP::ObjectHelper<IfcDistributionChamberElementType,1>::Construct )
823		, SchemaEntry("ifcmembertype",&STEP::ObjectHelper<IfcMemberType,1>::Construct )
	971	, SchemaEntry("ifcrelflowcontrolelements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	972	, SchemaEntry("ifcrelassignstoprocess",&STEP::ObjectHelper<NotImplemented,0>::Construct )
824	973	, SchemaEntry("ifcstructurallinearaction",&STEP::ObjectHelper<IfcStructuralLinearAction,1>::Construct )
825	974	, SchemaEntry("ifcstructurallinearactionvarying",&STEP::ObjectHelper<IfcStructuralLinearActionVarying,2>::Construct )
	975	, SchemaEntry("ifcbuildingelementproxytype",&STEP::ObjectHelper<IfcBuildingElementProxyType,1>::Construct )
	976	, SchemaEntry("ifcprojectionelement",&STEP::ObjectHelper<IfcProjectionElement,0>::Construct )
	977	, SchemaEntry("ifcderivedunit",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	978	, SchemaEntry("ifcapprovalactorrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	979	, SchemaEntry("ifcconversionbasedunit",&STEP::ObjectHelper<IfcConversionBasedUnit,2>::Construct )
	980	, SchemaEntry("ifcmaterial",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	981	, SchemaEntry("ifcgeometricrepresentationsubcontext",&STEP::ObjectHelper<IfcGeometricRepresentationSubContext,4>::Construct )
	982	, SchemaEntry("ifcannotationsurfaceoccurrence",&STEP::ObjectHelper<IfcAnnotationSurfaceOccurrence,0>::Construct )
	983	, SchemaEntry("ifcpredefineddimensionsymbol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	984	, SchemaEntry("ifcroundededgefeature",&STEP::ObjectHelper<IfcRoundedEdgeFeature,1>::Construct )
	985	, SchemaEntry("ifcrelcoversbldgelements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	986	, SchemaEntry("ifcelectricdistributionpoint",&STEP::ObjectHelper<IfcElectricDistributionPoint,2>::Construct )
	987	, SchemaEntry("ifccablecarriersegmenttype",&STEP::ObjectHelper<IfcCableCarrierSegmentType,1>::Construct )
	988	, SchemaEntry("ifcstructuralloadlinearforce",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	989	, SchemaEntry("ifcgridaxis",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	990	, SchemaEntry("ifcirregulartimeseriesvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	991	, SchemaEntry("ifcwallstandardcase",&STEP::ObjectHelper<IfcWallStandardCase,0>::Construct )
	992	, SchemaEntry("ifcreloccupiesspaces",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	993	, SchemaEntry("ifcderivedunitelement",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	994	, SchemaEntry("ifccsgsolid",&STEP::ObjectHelper<IfcCsgSolid,1>::Construct )
	995	, SchemaEntry("ifcbeamtype",&STEP::ObjectHelper<IfcBeamType,1>::Construct )
	996	, SchemaEntry("ifcannotationfillarea",&STEP::ObjectHelper<IfcAnnotationFillArea,2>::Construct )
	997	, SchemaEntry("ifcrelaxation",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	998	, SchemaEntry("ifcstructuralcurvemembervarying",&STEP::ObjectHelper<IfcStructuralCurveMemberVarying,0>::Construct )
	999	, SchemaEntry("ifcpointonsurface",&STEP::ObjectHelper<IfcPointOnSurface,3>::Construct )
	1000	, SchemaEntry("ifcpropertydependencyrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	1001	, SchemaEntry("ifcvertexbasedtexturemap",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	1002	, SchemaEntry("ifcorderaction",&STEP::ObjectHelper<IfcOrderAction,1>::Construct )
	1003	, SchemaEntry("ifclibraryreference",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	1004	, SchemaEntry("ifcedgeloop",&STEP::ObjectHelper<IfcEdgeLoop,1>::Construct )
	1005	, SchemaEntry("ifcannotationfillareaoccurrence",&STEP::ObjectHelper<IfcAnnotationFillAreaOccurrence,2>::Construct )
	1006	, SchemaEntry("ifcrelconnectsstructuralelement",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	1007	, SchemaEntry("ifcworkplan",&STEP::ObjectHelper<IfcWorkPlan,0>::Construct )
	1008	, SchemaEntry("ifcellipse",&STEP::ObjectHelper<IfcEllipse,2>::Construct )
826	1009	, SchemaEntry("ifcproductdefinitionshape",&STEP::ObjectHelper<IfcProductDefinitionShape,0>::Construct )
827		, SchemaEntry("ifcfastener",&STEP::ObjectHelper<IfcFastener,0>::Construct )
828		, SchemaEntry("ifcmechanicalfastener",&STEP::ObjectHelper<IfcMechanicalFastener,2>::Construct )
829		, SchemaEntry("ifcfuelproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
830		, SchemaEntry("ifcevaporatortype",&STEP::ObjectHelper<IfcEvaporatorType,1>::Construct )
831		, SchemaEntry("ifcmateriallayersetusage",&STEP::ObjectHelper<NotImplemented,0>::Construct )
832		, SchemaEntry("ifcdiscreteaccessorytype",&STEP::ObjectHelper<IfcDiscreteAccessoryType,0>::Construct )
833		, SchemaEntry("ifcstructuralcurveconnection",&STEP::ObjectHelper<IfcStructuralCurveConnection,0>::Construct )
834		, SchemaEntry("ifcprojectionelement",&STEP::ObjectHelper<IfcProjectionElement,0>::Construct )
	1010	, SchemaEntry("ifcprojectioncurve",&STEP::ObjectHelper<IfcProjectionCurve,0>::Construct )
	1011	, SchemaEntry("ifcelectricalcircuit",&STEP::ObjectHelper<IfcElectricalCircuit,0>::Construct )
	1012	, SchemaEntry("ifcrationalbeziercurve",&STEP::ObjectHelper<IfcRationalBezierCurve,1>::Construct )
	1013	, SchemaEntry("ifcstructuralpointaction",&STEP::ObjectHelper<IfcStructuralPointAction,0>::Construct )
	1014	, SchemaEntry("ifcservicelifefactor",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	1015	, SchemaEntry("ifcthermalmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	1016	, SchemaEntry("ifctexturecoordinategenerator",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	1017	, SchemaEntry("ifcpipesegmenttype",&STEP::ObjectHelper<IfcPipeSegmentType,1>::Construct )
	1018	, SchemaEntry("ifctwodirectionrepeatfactor",&STEP::ObjectHelper<IfcTwoDirectionRepeatFactor,1>::Construct )
	1019	, SchemaEntry("ifcshaperepresentation",&STEP::ObjectHelper<IfcShapeRepresentation,0>::Construct )
	1020	, SchemaEntry("ifcpropertyset",&STEP::ObjectHelper<IfcPropertySet,1>::Construct )
	1021	, SchemaEntry("ifcsurfacestylerendering",&STEP::ObjectHelper<IfcSurfaceStyleRendering,8>::Construct )
	1022	, SchemaEntry("ifcdistributionport",&STEP::ObjectHelper<IfcDistributionPort,1>::Construct )
835	1023	, SchemaEntry("ifcimagetexture",&STEP::ObjectHelper<NotImplemented,0>::Construct )
836		, SchemaEntry("ifccoveringtype",&STEP::ObjectHelper<IfcCoveringType,1>::Construct )
837		, SchemaEntry("ifcrelassociatesappliedvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
838		, SchemaEntry("ifcpumptype",&STEP::ObjectHelper<IfcPumpType,1>::Construct )
839		, SchemaEntry("ifcpile",&STEP::ObjectHelper<IfcPile,2>::Construct )
840		, SchemaEntry("ifcunitassignment",&STEP::ObjectHelper<IfcUnitAssignment,1>::Construct )
841		, SchemaEntry("ifcboundingbox",&STEP::ObjectHelper<IfcBoundingBox,4>::Construct )
842		, SchemaEntry("ifcshellbasedsurfacemodel",&STEP::ObjectHelper<IfcShellBasedSurfaceModel,1>::Construct )
843		, SchemaEntry("ifcfacetedbrep",&STEP::ObjectHelper<IfcFacetedBrep,0>::Construct )
844		, SchemaEntry("ifctextliteralwithextent",&STEP::ObjectHelper<IfcTextLiteralWithExtent,2>::Construct )
845		, SchemaEntry("ifcapplication",&STEP::ObjectHelper<NotImplemented,0>::Construct )
846		, SchemaEntry("ifcextendedmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
847		, SchemaEntry("ifcelectricappliancetype",&STEP::ObjectHelper<IfcElectricApplianceType,1>::Construct )
848		, SchemaEntry("ifcreloccupiesspaces",&STEP::ObjectHelper<NotImplemented,0>::Construct )
849		, SchemaEntry("ifctrapeziumprofiledef",&STEP::ObjectHelper<IfcTrapeziumProfileDef,4>::Construct )
850		, SchemaEntry("ifcquantityweight",&STEP::ObjectHelper<NotImplemented,0>::Construct )
851		, SchemaEntry("ifcrelcontainedinspatialstructure",&STEP::ObjectHelper<IfcRelContainedInSpatialStructure,2>::Construct )
852		, SchemaEntry("ifcedgeloop",&STEP::ObjectHelper<IfcEdgeLoop,1>::Construct )
853		, SchemaEntry("ifcproject",&STEP::ObjectHelper<IfcProject,4>::Construct )
854		, SchemaEntry("ifccartesianpoint",&STEP::ObjectHelper<IfcCartesianPoint,1>::Construct )
855		, SchemaEntry("ifcmaterial",&STEP::ObjectHelper<NotImplemented,0>::Construct )
856		, SchemaEntry("ifccurveboundedplane",&STEP::ObjectHelper<IfcCurveBoundedPlane,3>::Construct )
857		, SchemaEntry("ifcwalltype",&STEP::ObjectHelper<IfcWallType,1>::Construct )
858		, SchemaEntry("ifcfillareastylehatching",&STEP::ObjectHelper<IfcFillAreaStyleHatching,5>::Construct )
859		, SchemaEntry("ifcequipmentstandard",&STEP::ObjectHelper<IfcEquipmentStandard,0>::Construct )
860		, SchemaEntry("ifchygroscopicmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
861		, SchemaEntry("ifcdoorpanelproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
862		, SchemaEntry("ifcdiameterdimension",&STEP::ObjectHelper<IfcDiameterDimension,0>::Construct )
863		, SchemaEntry("ifcstructuralloadgroup",&STEP::ObjectHelper<IfcStructuralLoadGroup,5>::Construct )
864		, SchemaEntry("ifctelecomaddress",&STEP::ObjectHelper<NotImplemented,0>::Construct )
865		, SchemaEntry("ifcconstructionmaterialresource",&STEP::ObjectHelper<IfcConstructionMaterialResource,2>::Construct )
866		, SchemaEntry("ifcblobtexture",&STEP::ObjectHelper<NotImplemented,0>::Construct )
867		, SchemaEntry("ifcirregulartimeseriesvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
868		, SchemaEntry("ifcrelaggregates",&STEP::ObjectHelper<IfcRelAggregates,0>::Construct )
869		, SchemaEntry("ifcboilertype",&STEP::ObjectHelper<IfcBoilerType,1>::Construct )
870		, SchemaEntry("ifcrelprojectselement",&STEP::ObjectHelper<NotImplemented,0>::Construct )
871		, SchemaEntry("ifccolourspecification",&STEP::ObjectHelper<IfcColourSpecification,1>::Construct )
872		, SchemaEntry("ifccolourrgb",&STEP::ObjectHelper<IfcColourRgb,3>::Construct )
873		, SchemaEntry("ifcrelconnectsstructuralactivity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
874		, SchemaEntry("ifcdoorstyle",&STEP::ObjectHelper<IfcDoorStyle,4>::Construct )
875		, SchemaEntry("ifcstructuralloadsingledisplacementdistortion",&STEP::ObjectHelper<NotImplemented,0>::Construct )
876		, SchemaEntry("ifcrelassignstoprocess",&STEP::ObjectHelper<NotImplemented,0>::Construct )
877		, SchemaEntry("ifcductsilencertype",&STEP::ObjectHelper<IfcDuctSilencerType,1>::Construct )
878		, SchemaEntry("ifclightsourcegoniometric",&STEP::ObjectHelper<IfcLightSourceGoniometric,6>::Construct )
879		, SchemaEntry("ifcactuatortype",&STEP::ObjectHelper<IfcActuatorType,1>::Construct )
880		, SchemaEntry("ifcsensortype",&STEP::ObjectHelper<IfcSensorType,1>::Construct )
881		, SchemaEntry("ifcairterminalboxtype",&STEP::ObjectHelper<IfcAirTerminalBoxType,1>::Construct )
882		, SchemaEntry("ifcannotationsurfaceoccurrence",&STEP::ObjectHelper<IfcAnnotationSurfaceOccurrence,0>::Construct )
883		, SchemaEntry("ifczshapeprofiledef",&STEP::ObjectHelper<IfcZShapeProfileDef,6>::Construct )
884		, SchemaEntry("ifcclassificationnotation",&STEP::ObjectHelper<NotImplemented,0>::Construct )
885		, SchemaEntry("ifcrationalbeziercurve",&STEP::ObjectHelper<IfcRationalBezierCurve,1>::Construct )
886		, SchemaEntry("ifccartesiantransformationoperator2d",&STEP::ObjectHelper<IfcCartesianTransformationOperator2D,0>::Construct )
887		, SchemaEntry("ifccartesiantransformationoperator2dnonuniform",&STEP::ObjectHelper<IfcCartesianTransformationOperator2DnonUniform,1>::Construct )
888		, SchemaEntry("ifcmove",&STEP::ObjectHelper<IfcMove,3>::Construct )
889		, SchemaEntry("ifcboundaryedgecondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
890		, SchemaEntry("ifcdoorliningproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
891		, SchemaEntry("ifccablecarriersegmenttype",&STEP::ObjectHelper<IfcCableCarrierSegmentType,1>::Construct )
892		, SchemaEntry("ifcpostaladdress",&STEP::ObjectHelper<NotImplemented,0>::Construct )
893		, SchemaEntry("ifcrelconnectspathelements",&STEP::ObjectHelper<NotImplemented,0>::Construct )
894		, SchemaEntry("ifcelectricalelement",&STEP::ObjectHelper<IfcElectricalElement,0>::Construct )
895		, SchemaEntry("ifcownerhistory",&STEP::ObjectHelper<NotImplemented,0>::Construct )
896		, SchemaEntry("ifcstructuralloadtemperature",&STEP::ObjectHelper<NotImplemented,0>::Construct )
897		, SchemaEntry("ifctextstylewithboxcharacteristics",&STEP::ObjectHelper<NotImplemented,0>::Construct )
898		, SchemaEntry("ifcchillertype",&STEP::ObjectHelper<IfcChillerType,1>::Construct )
899		, SchemaEntry("ifcrelschedulescostitems",&STEP::ObjectHelper<NotImplemented,0>::Construct )
900		, SchemaEntry("ifcreinforcingbar",&STEP::ObjectHelper<IfcReinforcingBar,5>::Construct )
901		, SchemaEntry("ifccurrencyrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
902		, SchemaEntry("ifcsoundvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
903		, SchemaEntry("ifccshapeprofiledef",&STEP::ObjectHelper<IfcCShapeProfileDef,6>::Construct )
904		, SchemaEntry("ifcpermit",&STEP::ObjectHelper<IfcPermit,1>::Construct )
905		, SchemaEntry("ifcslabtype",&STEP::ObjectHelper<IfcSlabType,1>::Construct )
906		, SchemaEntry("ifcslippageconnectioncondition",&STEP::ObjectHelper<NotImplemented,0>::Construct )
907		, SchemaEntry("ifclamptype",&STEP::ObjectHelper<IfcLampType,1>::Construct )
908		, SchemaEntry("ifcplanarextent",&STEP::ObjectHelper<IfcPlanarExtent,2>::Construct )
909		, SchemaEntry("ifcalarmtype",&STEP::ObjectHelper<IfcAlarmType,1>::Construct )
910		, SchemaEntry("ifcdocumentelectronicformat",&STEP::ObjectHelper<NotImplemented,0>::Construct )
911		, SchemaEntry("ifcelectricflowstoragedevicetype",&STEP::ObjectHelper<IfcElectricFlowStorageDeviceType,1>::Construct )
912		, SchemaEntry("ifcequipmentelement",&STEP::ObjectHelper<IfcEquipmentElement,0>::Construct )
913		, SchemaEntry("ifclightfixturetype",&STEP::ObjectHelper<IfcLightFixtureType,1>::Construct )
914		, SchemaEntry("ifcmetric",&STEP::ObjectHelper<NotImplemented,0>::Construct )
915		, SchemaEntry("ifcrelnests",&STEP::ObjectHelper<NotImplemented,0>::Construct )
916		, SchemaEntry("ifccurtainwall",&STEP::ObjectHelper<IfcCurtainWall,0>::Construct )
917		, SchemaEntry("ifcrelassociatesdocument",&STEP::ObjectHelper<NotImplemented,0>::Construct )
918		, SchemaEntry("ifccomplexproperty",&STEP::ObjectHelper<NotImplemented,0>::Construct )
919		, SchemaEntry("ifcvertexbasedtexturemap",&STEP::ObjectHelper<NotImplemented,0>::Construct )
920		, SchemaEntry("ifcslab",&STEP::ObjectHelper<IfcSlab,1>::Construct )
921		, SchemaEntry("ifccurtainwalltype",&STEP::ObjectHelper<IfcCurtainWallType,1>::Construct )
922		, SchemaEntry("ifcoutlettype",&STEP::ObjectHelper<IfcOutletType,1>::Construct )
923		, SchemaEntry("ifccompressortype",&STEP::ObjectHelper<IfcCompressorType,1>::Construct )
924		, SchemaEntry("ifccranerailashapeprofiledef",&STEP::ObjectHelper<IfcCraneRailAShapeProfileDef,12>::Construct )
925		, SchemaEntry("ifcflowsegment",&STEP::ObjectHelper<IfcFlowSegment,0>::Construct )
926		, SchemaEntry("ifcsectionedspine",&STEP::ObjectHelper<IfcSectionedSpine,3>::Construct )
927		, SchemaEntry("ifctablerow",&STEP::ObjectHelper<NotImplemented,0>::Construct )
928		, SchemaEntry("ifcdraughtingpredefinedtextfont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
929		, SchemaEntry("ifcelectrictimecontroltype",&STEP::ObjectHelper<IfcElectricTimeControlType,1>::Construct )
930		, SchemaEntry("ifcfacesurface",&STEP::ObjectHelper<IfcFaceSurface,2>::Construct )
931		, SchemaEntry("ifcmateriallist",&STEP::ObjectHelper<NotImplemented,0>::Construct )
932		, SchemaEntry("ifcmotorconnectiontype",&STEP::ObjectHelper<IfcMotorConnectionType,1>::Construct )
933		, SchemaEntry("ifcflowfitting",&STEP::ObjectHelper<IfcFlowFitting,0>::Construct )
934		, SchemaEntry("ifcpointoncurve",&STEP::ObjectHelper<IfcPointOnCurve,2>::Construct )
935		, SchemaEntry("ifctransportelementtype",&STEP::ObjectHelper<IfcTransportElementType,1>::Construct )
936		, SchemaEntry("ifcregulartimeseries",&STEP::ObjectHelper<NotImplemented,0>::Construct )
937		, SchemaEntry("ifcrelassociatesconstraint",&STEP::ObjectHelper<NotImplemented,0>::Construct )
938		, SchemaEntry("ifcpropertyenumeratedvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
939		, SchemaEntry("ifcstructuralsteelprofileproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
940		, SchemaEntry("ifccablesegmenttype",&STEP::ObjectHelper<IfcCableSegmentType,1>::Construct )
941		, SchemaEntry("ifcexternallydefinedhatchstyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
942		, SchemaEntry("ifcannotationsurface",&STEP::ObjectHelper<IfcAnnotationSurface,2>::Construct )
943		, SchemaEntry("ifccompositecurvesegment",&STEP::ObjectHelper<IfcCompositeCurveSegment,3>::Construct )
944		, SchemaEntry("ifcservicelife",&STEP::ObjectHelper<IfcServiceLife,2>::Construct )
945		, SchemaEntry("ifcplatetype",&STEP::ObjectHelper<IfcPlateType,1>::Construct )
946		, SchemaEntry("ifccurvestyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
947		, SchemaEntry("ifcsectionproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
948		, SchemaEntry("ifcvibrationisolatortype",&STEP::ObjectHelper<IfcVibrationIsolatorType,1>::Construct )
949		, SchemaEntry("ifctexturemap",&STEP::ObjectHelper<NotImplemented,0>::Construct )
950		, SchemaEntry("ifctrimmedcurve",&STEP::ObjectHelper<IfcTrimmedCurve,5>::Construct )
951		, SchemaEntry("ifcmappeditem",&STEP::ObjectHelper<IfcMappedItem,2>::Construct )
	1024	, SchemaEntry("ifcpipefittingtype",&STEP::ObjectHelper<IfcPipeFittingType,1>::Construct )
	1025	, SchemaEntry("ifctransportelement",&STEP::ObjectHelper<IfcTransportElement,3>::Construct )
	1026	, SchemaEntry("ifcannotationtextoccurrence",&STEP::ObjectHelper<IfcAnnotationTextOccurrence,0>::Construct )
	1027	, SchemaEntry("ifcconnectionsurfacegeometry",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	1028	, SchemaEntry("ifcstructuralanalysismodel",&STEP::ObjectHelper<IfcStructuralAnalysisModel,4>::Construct )
	1029	, SchemaEntry("ifcconnectioncurvegeometry",&STEP::ObjectHelper<NotImplemented,0>::Construct )
	1030	, SchemaEntry("ifcconditioncriterion",&STEP::ObjectHelper<IfcConditionCriterion,2>::Construct )
	1031	, SchemaEntry("ifcwaterproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
952	1032	, SchemaEntry("ifcmateriallayer",&STEP::ObjectHelper<NotImplemented,0>::Construct )
953		, SchemaEntry("ifcdirection",&STEP::ObjectHelper<IfcDirection,1>::Construct )
954		, SchemaEntry("ifcblock",&STEP::ObjectHelper<IfcBlock,3>::Construct )
955		, SchemaEntry("ifcprojectorderrecord",&STEP::ObjectHelper<IfcProjectOrderRecord,2>::Construct )
956		, SchemaEntry("ifcflowmetertype",&STEP::ObjectHelper<IfcFlowMeterType,1>::Construct )
957		, SchemaEntry("ifccontrollertype",&STEP::ObjectHelper<IfcControllerType,1>::Construct )
958		, SchemaEntry("ifcbeam",&STEP::ObjectHelper<IfcBeam,0>::Construct )
959		, SchemaEntry("ifcarbitraryopenprofiledef",&STEP::ObjectHelper<IfcArbitraryOpenProfileDef,1>::Construct )
960		, SchemaEntry("ifccenterlineprofiledef",&STEP::ObjectHelper<IfcCenterLineProfileDef,1>::Construct )
961		, SchemaEntry("ifcstructuralloadplanarforce",&STEP::ObjectHelper<NotImplemented,0>::Construct )
962		, SchemaEntry("ifctimeseriesschedule",&STEP::ObjectHelper<IfcTimeSeriesSchedule,3>::Construct )
963		, SchemaEntry("ifcroundededgefeature",&STEP::ObjectHelper<IfcRoundedEdgeFeature,1>::Construct )
964		, SchemaEntry("ifcwindowliningproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
965		, SchemaEntry("ifcreloverridesproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
966		, SchemaEntry("ifcapprovalrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
967		, SchemaEntry("ifcishapeprofiledef",&STEP::ObjectHelper<IfcIShapeProfileDef,5>::Construct )
968		, SchemaEntry("ifcspaceheatertype",&STEP::ObjectHelper<IfcSpaceHeaterType,1>::Construct )
969		, SchemaEntry("ifcexternallydefinedsurfacestyle",&STEP::ObjectHelper<NotImplemented,0>::Construct )
970		, SchemaEntry("ifcderivedunit",&STEP::ObjectHelper<NotImplemented,0>::Construct )
971		, SchemaEntry("ifcflowstoragedevice",&STEP::ObjectHelper<IfcFlowStorageDevice,0>::Construct )
972		, SchemaEntry("ifcmaterialclassificationrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
973		, SchemaEntry("ifcclassificationitem",&STEP::ObjectHelper<NotImplemented,0>::Construct )
974		, SchemaEntry("ifcrevolvedareasolid",&STEP::ObjectHelper<IfcRevolvedAreaSolid,2>::Construct )
975		, SchemaEntry("ifcconnectionpointgeometry",&STEP::ObjectHelper<NotImplemented,0>::Construct )
976		, SchemaEntry("ifcdoor",&STEP::ObjectHelper<IfcDoor,2>::Construct )
977		, SchemaEntry("ifcellipse",&STEP::ObjectHelper<IfcEllipse,2>::Construct )
978		, SchemaEntry("ifctubebundletype",&STEP::ObjectHelper<IfcTubeBundleType,1>::Construct )
979		, SchemaEntry("ifcangulardimension",&STEP::ObjectHelper<IfcAngularDimension,0>::Construct )
980		, SchemaEntry("ifcthermalmaterialproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
981		, SchemaEntry("ifcfacebasedsurfacemodel",&STEP::ObjectHelper<IfcFaceBasedSurfaceModel,1>::Construct )
982		, SchemaEntry("ifccranerailfshapeprofiledef",&STEP::ObjectHelper<IfcCraneRailFShapeProfileDef,9>::Construct )
983		, SchemaEntry("ifccolumntype",&STEP::ObjectHelper<IfcColumnType,1>::Construct )
984		, SchemaEntry("ifctshapeprofiledef",&STEP::ObjectHelper<IfcTShapeProfileDef,10>::Construct )
985		, SchemaEntry("ifcenergyconversiondevice",&STEP::ObjectHelper<IfcEnergyConversionDevice,0>::Construct )
986		, SchemaEntry("ifcconnectionpointeccentricity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
987		, SchemaEntry("ifcreinforcementdefinitionproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
988		, SchemaEntry("ifccurvestylefontandscaling",&STEP::ObjectHelper<NotImplemented,0>::Construct )
989		, SchemaEntry("ifcworkschedule",&STEP::ObjectHelper<IfcWorkSchedule,0>::Construct )
990		, SchemaEntry("ifcorganizationrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
991		, SchemaEntry("ifczone",&STEP::ObjectHelper<IfcZone,0>::Construct )
992		, SchemaEntry("ifctransportelement",&STEP::ObjectHelper<IfcTransportElement,3>::Construct )
993		, SchemaEntry("ifcdraughtingpredefinedcurvefont",&STEP::ObjectHelper<NotImplemented,0>::Construct )
994		, SchemaEntry("ifcgeometricrepresentationsubcontext",&STEP::ObjectHelper<IfcGeometricRepresentationSubContext,4>::Construct )
995		, SchemaEntry("ifclshapeprofiledef",&STEP::ObjectHelper<IfcLShapeProfileDef,8>::Construct )
996		, SchemaEntry("ifcgeometriccurveset",&STEP::ObjectHelper<IfcGeometricCurveSet,0>::Construct )
997		, SchemaEntry("ifcactor",&STEP::ObjectHelper<IfcActor,1>::Construct )
998		, SchemaEntry("ifcoccupant",&STEP::ObjectHelper<IfcOccupant,1>::Construct )
999		, SchemaEntry("ifcphysicalcomplexquantity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1000		, SchemaEntry("ifcbooleanclippingresult",&STEP::ObjectHelper<IfcBooleanClippingResult,0>::Construct )
1001		, SchemaEntry("ifcpredefinedterminatorsymbol",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1002		, SchemaEntry("ifcannotationfillarea",&STEP::ObjectHelper<IfcAnnotationFillArea,2>::Construct )
1003		, SchemaEntry("ifcconstraintaggregationrelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1004		, SchemaEntry("ifcrelassociatesapproval",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1005		, SchemaEntry("ifcrelassociatesmaterial",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1006		, SchemaEntry("ifcrelassignstoproduct",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1007		, SchemaEntry("ifcappliedvaluerelationship",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1008		, SchemaEntry("ifclightsourcespot",&STEP::ObjectHelper<IfcLightSourceSpot,4>::Construct )
1009		, SchemaEntry("ifcfiresuppressionterminaltype",&STEP::ObjectHelper<IfcFireSuppressionTerminalType,1>::Construct )
1010		, SchemaEntry("ifcelementquantity",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1011		, SchemaEntry("ifcdimensionpair",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1012		, SchemaEntry("ifcelectricgeneratortype",&STEP::ObjectHelper<IfcElectricGeneratorType,1>::Construct )
1013		, SchemaEntry("ifcrelsequence",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1014		, SchemaEntry("ifcinventory",&STEP::ObjectHelper<IfcInventory,6>::Construct )
1015		, SchemaEntry("ifcpolyline",&STEP::ObjectHelper<IfcPolyline,1>::Construct )
1016		, SchemaEntry("ifcboxedhalfspace",&STEP::ObjectHelper<IfcBoxedHalfSpace,1>::Construct )
1017		, SchemaEntry("ifcairterminaltype",&STEP::ObjectHelper<IfcAirTerminalType,1>::Construct )
1018		, SchemaEntry("ifcsectionreinforcementproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1019		, SchemaEntry("ifcdistributionport",&STEP::ObjectHelper<IfcDistributionPort,1>::Construct )
1020		, SchemaEntry("ifccostitem",&STEP::ObjectHelper<IfcCostItem,0>::Construct )
1021		, SchemaEntry("ifcstructureddimensioncallout",&STEP::ObjectHelper<IfcStructuredDimensionCallout,0>::Construct )
1022		, SchemaEntry("ifcstructuralresultgroup",&STEP::ObjectHelper<IfcStructuralResultGroup,3>::Construct )
1023		, SchemaEntry("ifcrelspaceboundary",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1024		, SchemaEntry("ifcorientededge",&STEP::ObjectHelper<IfcOrientedEdge,2>::Construct )
1025		, SchemaEntry("ifcrelassignstoresource",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1026		, SchemaEntry("ifccsgsolid",&STEP::ObjectHelper<IfcCsgSolid,1>::Construct )
1027		, SchemaEntry("ifcproductsofcombustionproperties",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1028		, SchemaEntry("ifcrelaxation",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1029		, SchemaEntry("ifcplanarbox",&STEP::ObjectHelper<IfcPlanarBox,1>::Construct )
1030		, SchemaEntry("ifcquantitylength",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1031		, SchemaEntry("ifcmaterialdefinitionrepresentation",&STEP::ObjectHelper<IfcMaterialDefinitionRepresentation,1>::Construct )
1032		, SchemaEntry("ifcasymmetricishapeprofiledef",&STEP::ObjectHelper<IfcAsymmetricIShapeProfileDef,4>::Construct )
1033		, SchemaEntry("ifcrepresentationmap",&STEP::ObjectHelper<IfcRepresentationMap,2>::Construct )
	1033	, SchemaEntry("ifccostvalue",&STEP::ObjectHelper<NotImplemented,0>::Construct )
1034	1034
1035	1035	};
1036	1036	}

1111	1111	return base;
1112	1112	}
1113	1113	// -----------------------------------------------------------------------------------------------------------
1114		template <> size_t GenericFill<IfcFurnishingElementType>(const DB& db, const LIST& params, IfcFurnishingElementType* in)
	1114	template <> size_t GenericFill<IfcDistributionElementType>(const DB& db, const LIST& params, IfcDistributionElementType* in)
1115	1115	{
1116	1116	size_t base = GenericFill(db,params,static_cast<IfcElementType*>(in));
1117	1117	// this data structure is not used yet, so there is no code generated to fill its members
1118	1118	return base;
1119	1119	}
1120	1120	// -----------------------------------------------------------------------------------------------------------
1121		template <> size_t GenericFill<IfcFurnitureType>(const DB& db, const LIST& params, IfcFurnitureType* in)
1122		{
1123		size_t base = GenericFill(db,params,static_cast<IfcFurnishingElementType*>(in));
	1121	template <> size_t GenericFill<IfcDistributionFlowElementType>(const DB& db, const LIST& params, IfcDistributionFlowElementType* in)
	1122	{
	1123	size_t base = GenericFill(db,params,static_cast<IfcDistributionElementType*>(in));
	1124	// this data structure is not used yet, so there is no code generated to fill its members
	1125	return base;
	1126	}
	1127	// -----------------------------------------------------------------------------------------------------------
	1128	template <> size_t GenericFill<IfcFlowControllerType>(const DB& db, const LIST& params, IfcFlowControllerType* in)
	1129	{
	1130	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
	1131	// this data structure is not used yet, so there is no code generated to fill its members
	1132	return base;
	1133	}
	1134	// -----------------------------------------------------------------------------------------------------------
	1135	template <> size_t GenericFill<IfcElectricTimeControlType>(const DB& db, const LIST& params, IfcElectricTimeControlType* in)
	1136	{
	1137	size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
	1138	// this data structure is not used yet, so there is no code generated to fill its members
	1139	return base;
	1140	}
	1141	// -----------------------------------------------------------------------------------------------------------
	1142	template <> size_t GenericFill<IfcRepresentation>(const DB& db, const LIST& params, IfcRepresentation* in)
	1143	{
	1144	size_t base = 0;
	1145	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcRepresentation"); } do { // convert the 'ContextOfItems' argument
	1146	boost::shared_ptr<const DataType> arg = params[base++];
	1147	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentation,4>::aux_is_derived[0]=true; break; }
	1148	try { GenericConvert( in->ContextOfItems, arg, db ); break; }
	1149	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcRepresentation to be a `IfcRepresentationContext`")); }
	1150	} while(0);
	1151	do { // convert the 'RepresentationIdentifier' argument
	1152	boost::shared_ptr<const DataType> arg = params[base++];
	1153	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentation,4>::aux_is_derived[1]=true; break; }
	1154	if (dynamic_cast<const UNSET>(&arg)) break;
	1155	try { GenericConvert( in->RepresentationIdentifier, arg, db ); break; }
	1156	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcRepresentation to be a `IfcLabel`")); }
	1157	} while(0);
	1158	do { // convert the 'RepresentationType' argument
	1159	boost::shared_ptr<const DataType> arg = params[base++];
	1160	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentation,4>::aux_is_derived[2]=true; break; }
	1161	if (dynamic_cast<const UNSET>(&arg)) break;
	1162	try { GenericConvert( in->RepresentationType, arg, db ); break; }
	1163	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcRepresentation to be a `IfcLabel`")); }
	1164	} while(0);
	1165	do { // convert the 'Items' argument
	1166	boost::shared_ptr<const DataType> arg = params[base++];
	1167	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentation,4>::aux_is_derived[3]=true; break; }
	1168	try { GenericConvert( in->Items, arg, db ); break; }
	1169	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcRepresentation to be a `SET [1:?] OF IfcRepresentationItem`")); }
	1170	} while(0);
	1171	return base;
	1172	}
	1173	// -----------------------------------------------------------------------------------------------------------
	1174	template <> size_t GenericFill<IfcShapeModel>(const DB& db, const LIST& params, IfcShapeModel* in)
	1175	{
	1176	size_t base = GenericFill(db,params,static_cast<IfcRepresentation*>(in));
	1177	// this data structure is not used yet, so there is no code generated to fill its members
	1178	return base;
	1179	}
	1180	// -----------------------------------------------------------------------------------------------------------
	1181	template <> size_t GenericFill<IfcTopologyRepresentation>(const DB& db, const LIST& params, IfcTopologyRepresentation* in)
	1182	{
	1183	size_t base = GenericFill(db,params,static_cast<IfcShapeModel*>(in));
	1184	// this data structure is not used yet, so there is no code generated to fill its members
	1185	return base;
	1186	}
	1187	// -----------------------------------------------------------------------------------------------------------
	1188	template <> size_t GenericFill<IfcRelationship>(const DB& db, const LIST& params, IfcRelationship* in)
	1189	{
	1190	size_t base = GenericFill(db,params,static_cast<IfcRoot*>(in));
	1191	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcRelationship"); } return base;
	1192	}
	1193	// -----------------------------------------------------------------------------------------------------------
	1194	template <> size_t GenericFill<IfcRelConnects>(const DB& db, const LIST& params, IfcRelConnects* in)
	1195	{
	1196	size_t base = GenericFill(db,params,static_cast<IfcRelationship*>(in));
	1197	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcRelConnects"); } return base;
	1198	}
	1199	// -----------------------------------------------------------------------------------------------------------
	1200	template <> size_t GenericFill<IfcFlowFittingType>(const DB& db, const LIST& params, IfcFlowFittingType* in)
	1201	{
	1202	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
	1203	// this data structure is not used yet, so there is no code generated to fill its members
	1204	return base;
	1205	}
	1206	// -----------------------------------------------------------------------------------------------------------
	1207	template <> size_t GenericFill<IfcCableCarrierFittingType>(const DB& db, const LIST& params, IfcCableCarrierFittingType* in)
	1208	{
	1209	size_t base = GenericFill(db,params,static_cast<IfcFlowFittingType*>(in));
	1210	// this data structure is not used yet, so there is no code generated to fill its members
	1211	return base;
	1212	}
	1213	// -----------------------------------------------------------------------------------------------------------
	1214	template <> size_t GenericFill<IfcEnergyConversionDeviceType>(const DB& db, const LIST& params, IfcEnergyConversionDeviceType* in)
	1215	{
	1216	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
	1217	// this data structure is not used yet, so there is no code generated to fill its members
	1218	return base;
	1219	}
	1220	// -----------------------------------------------------------------------------------------------------------
	1221	template <> size_t GenericFill<IfcCoilType>(const DB& db, const LIST& params, IfcCoilType* in)
	1222	{
	1223	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
1124	1224	// this data structure is not used yet, so there is no code generated to fill its members
1125	1225	return base;
1126	1226	}

1138	1238	return base;
1139	1239	}
1140	1240	// -----------------------------------------------------------------------------------------------------------
	1241	template <> size_t GenericFill<IfcControl>(const DB& db, const LIST& params, IfcControl* in)
	1242	{
	1243	size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
	1244	// this data structure is not used yet, so there is no code generated to fill its members
	1245	return base;
	1246	}
	1247	// -----------------------------------------------------------------------------------------------------------
	1248	template <> size_t GenericFill<IfcPerformanceHistory>(const DB& db, const LIST& params, IfcPerformanceHistory* in)
	1249	{
	1250	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	1251	// this data structure is not used yet, so there is no code generated to fill its members
	1252	return base;
	1253	}
	1254	// -----------------------------------------------------------------------------------------------------------
	1255	template <> size_t GenericFill<IfcRepresentationItem>(const DB& db, const LIST& params, IfcRepresentationItem* in)
	1256	{
	1257	size_t base = 0;
	1258	return base;
	1259	}
	1260	// -----------------------------------------------------------------------------------------------------------
	1261	template <> size_t GenericFill<IfcGeometricRepresentationItem>(const DB& db, const LIST& params, IfcGeometricRepresentationItem* in)
	1262	{
	1263	size_t base = GenericFill(db,params,static_cast<IfcRepresentationItem*>(in));
	1264	return base;
	1265	}
	1266	// -----------------------------------------------------------------------------------------------------------
	1267	template <> size_t GenericFill<IfcTextLiteral>(const DB& db, const LIST& params, IfcTextLiteral* in)
	1268	{
	1269	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	1270	// this data structure is not used yet, so there is no code generated to fill its members
	1271	return base;
	1272	}
	1273	// -----------------------------------------------------------------------------------------------------------
	1274	template <> size_t GenericFill<IfcTextLiteralWithExtent>(const DB& db, const LIST& params, IfcTextLiteralWithExtent* in)
	1275	{
	1276	size_t base = GenericFill(db,params,static_cast<IfcTextLiteral*>(in));
	1277	// this data structure is not used yet, so there is no code generated to fill its members
	1278	return base;
	1279	}
	1280	// -----------------------------------------------------------------------------------------------------------
	1281	template <> size_t GenericFill<IfcProductRepresentation>(const DB& db, const LIST& params, IfcProductRepresentation* in)
	1282	{
	1283	size_t base = 0;
	1284	if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcProductRepresentation"); } do { // convert the 'Name' argument
	1285	boost::shared_ptr<const DataType> arg = params[base++];
	1286	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProductRepresentation,3>::aux_is_derived[0]=true; break; }
	1287	if (dynamic_cast<const UNSET>(&arg)) break;
	1288	try { GenericConvert( in->Name, arg, db ); break; }
	1289	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcProductRepresentation to be a `IfcLabel`")); }
	1290	} while(0);
	1291	do { // convert the 'Description' argument
	1292	boost::shared_ptr<const DataType> arg = params[base++];
	1293	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProductRepresentation,3>::aux_is_derived[1]=true; break; }
	1294	if (dynamic_cast<const UNSET>(&arg)) break;
	1295	try { GenericConvert( in->Description, arg, db ); break; }
	1296	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcProductRepresentation to be a `IfcText`")); }
	1297	} while(0);
	1298	do { // convert the 'Representations' argument
	1299	boost::shared_ptr<const DataType> arg = params[base++];
	1300	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProductRepresentation,3>::aux_is_derived[2]=true; break; }
	1301	try { GenericConvert( in->Representations, arg, db ); break; }
	1302	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcProductRepresentation to be a `LIST [1:?] OF IfcRepresentation`")); }
	1303	} while(0);
	1304	return base;
	1305	}
	1306	// -----------------------------------------------------------------------------------------------------------
1141	1307	template <> size_t GenericFill<IfcProduct>(const DB& db, const LIST& params, IfcProduct* in)
1142	1308	{
1143	1309	size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));

1158	1324	return base;
1159	1325	}
1160	1326	// -----------------------------------------------------------------------------------------------------------
1161		template <> size_t GenericFill<IfcGrid>(const DB& db, const LIST& params, IfcGrid* in)
1162		{
1163		size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
1164		// this data structure is not used yet, so there is no code generated to fill its members
1165		return base;
1166		}
1167		// -----------------------------------------------------------------------------------------------------------
1168		template <> size_t GenericFill<IfcRepresentationItem>(const DB& db, const LIST& params, IfcRepresentationItem* in)
1169		{
1170		size_t base = 0;
1171		return base;
1172		}
1173		// -----------------------------------------------------------------------------------------------------------
1174		template <> size_t GenericFill<IfcGeometricRepresentationItem>(const DB& db, const LIST& params, IfcGeometricRepresentationItem* in)
1175		{
1176		size_t base = GenericFill(db,params,static_cast<IfcRepresentationItem*>(in));
1177		return base;
1178		}
1179		// -----------------------------------------------------------------------------------------------------------
1180		template <> size_t GenericFill<IfcOneDirectionRepeatFactor>(const DB& db, const LIST& params, IfcOneDirectionRepeatFactor* in)
1181		{
1182		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
1183		// this data structure is not used yet, so there is no code generated to fill its members
1184		return base;
1185		}
1186		// -----------------------------------------------------------------------------------------------------------
1187		template <> size_t GenericFill<IfcTwoDirectionRepeatFactor>(const DB& db, const LIST& params, IfcTwoDirectionRepeatFactor* in)
1188		{
1189		size_t base = GenericFill(db,params,static_cast<IfcOneDirectionRepeatFactor*>(in));
1190		// this data structure is not used yet, so there is no code generated to fill its members
1191		return base;
1192		}
1193		// -----------------------------------------------------------------------------------------------------------
1194	1327	template <> size_t GenericFill<IfcElement>(const DB& db, const LIST& params, IfcElement* in)
1195	1328	{
1196	1329	size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));

1204	1337	return base;
1205	1338	}
1206	1339	// -----------------------------------------------------------------------------------------------------------
1207		template <> size_t GenericFill<IfcElementComponent>(const DB& db, const LIST& params, IfcElementComponent* in)
	1340	template <> size_t GenericFill<IfcDistributionElement>(const DB& db, const LIST& params, IfcDistributionElement* in)
1208	1341	{
1209	1342	size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
1210	1343	// this data structure is not used yet, so there is no code generated to fill its members
1211	1344	return base;
1212	1345	}
1213	1346	// -----------------------------------------------------------------------------------------------------------
	1347	template <> size_t GenericFill<IfcDistributionFlowElement>(const DB& db, const LIST& params, IfcDistributionFlowElement* in)
	1348	{
	1349	size_t base = GenericFill(db,params,static_cast<IfcDistributionElement*>(in));
	1350	// this data structure is not used yet, so there is no code generated to fill its members
	1351	return base;
	1352	}
	1353	// -----------------------------------------------------------------------------------------------------------
	1354	template <> size_t GenericFill<IfcCurve>(const DB& db, const LIST& params, IfcCurve* in)
	1355	{
	1356	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	1357	return base;
	1358	}
	1359	// -----------------------------------------------------------------------------------------------------------
	1360	template <> size_t GenericFill<IfcBoundedCurve>(const DB& db, const LIST& params, IfcBoundedCurve* in)
	1361	{
	1362	size_t base = GenericFill(db,params,static_cast<IfcCurve*>(in));
	1363	return base;
	1364	}
	1365	// -----------------------------------------------------------------------------------------------------------
	1366	template <> size_t GenericFill<IfcCompositeCurve>(const DB& db, const LIST& params, IfcCompositeCurve* in)
	1367	{
	1368	size_t base = GenericFill(db,params,static_cast<IfcBoundedCurve*>(in));
	1369	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcCompositeCurve"); } do { // convert the 'Segments' argument
	1370	boost::shared_ptr<const DataType> arg = params[base++];
	1371	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCompositeCurve,2>::aux_is_derived[0]=true; break; }
	1372	try { GenericConvert( in->Segments, arg, db ); break; }
	1373	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcCompositeCurve to be a `LIST [1:?] OF IfcCompositeCurveSegment`")); }
	1374	} while(0);
	1375	do { // convert the 'SelfIntersect' argument
	1376	boost::shared_ptr<const DataType> arg = params[base++];
	1377	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCompositeCurve,2>::aux_is_derived[1]=true; break; }
	1378	try { GenericConvert( in->SelfIntersect, arg, db ); break; }
	1379	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcCompositeCurve to be a `LOGICAL`")); }
	1380	} while(0);
	1381	return base;
	1382	}
	1383	// -----------------------------------------------------------------------------------------------------------
	1384	template <> size_t GenericFill<Ifc2DCompositeCurve>(const DB& db, const LIST& params, Ifc2DCompositeCurve* in)
	1385	{
	1386	size_t base = GenericFill(db,params,static_cast<IfcCompositeCurve*>(in));
	1387	// this data structure is not used yet, so there is no code generated to fill its members
	1388	return base;
	1389	}
	1390	// -----------------------------------------------------------------------------------------------------------
	1391	template <> size_t GenericFill<IfcCartesianTransformationOperator>(const DB& db, const LIST& params, IfcCartesianTransformationOperator* in)
	1392	{
	1393	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	1394	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcCartesianTransformationOperator"); } do { // convert the 'Axis1' argument
	1395	boost::shared_ptr<const DataType> arg = params[base++];
	1396	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCartesianTransformationOperator,4>::aux_is_derived[0]=true; break; }
	1397	if (dynamic_cast<const UNSET>(&arg)) break;
	1398	try { GenericConvert( in->Axis1, arg, db ); break; }
	1399	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcCartesianTransformationOperator to be a `IfcDirection`")); }
	1400	} while(0);
	1401	do { // convert the 'Axis2' argument
	1402	boost::shared_ptr<const DataType> arg = params[base++];
	1403	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCartesianTransformationOperator,4>::aux_is_derived[1]=true; break; }
	1404	if (dynamic_cast<const UNSET>(&arg)) break;
	1405	try { GenericConvert( in->Axis2, arg, db ); break; }
	1406	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcCartesianTransformationOperator to be a `IfcDirection`")); }
	1407	} while(0);
	1408	do { // convert the 'LocalOrigin' argument
	1409	boost::shared_ptr<const DataType> arg = params[base++];
	1410	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCartesianTransformationOperator,4>::aux_is_derived[2]=true; break; }
	1411	try { GenericConvert( in->LocalOrigin, arg, db ); break; }
	1412	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcCartesianTransformationOperator to be a `IfcCartesianPoint`")); }
	1413	} while(0);
	1414	do { // convert the 'Scale' argument
	1415	boost::shared_ptr<const DataType> arg = params[base++];
	1416	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCartesianTransformationOperator,4>::aux_is_derived[3]=true; break; }
	1417	if (dynamic_cast<const UNSET>(&arg)) break;
	1418	try { GenericConvert( in->Scale, arg, db ); break; }
	1419	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcCartesianTransformationOperator to be a `REAL`")); }
	1420	} while(0);
	1421	return base;
	1422	}
	1423	// -----------------------------------------------------------------------------------------------------------
	1424	template <> size_t GenericFill<IfcCartesianTransformationOperator3D>(const DB& db, const LIST& params, IfcCartesianTransformationOperator3D* in)
	1425	{
	1426	size_t base = GenericFill(db,params,static_cast<IfcCartesianTransformationOperator*>(in));
	1427	if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcCartesianTransformationOperator3D"); } do { // convert the 'Axis3' argument
	1428	boost::shared_ptr<const DataType> arg = params[base++];
	1429	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCartesianTransformationOperator3D,1>::aux_is_derived[0]=true; break; }
	1430	if (dynamic_cast<const UNSET>(&arg)) break;
	1431	try { GenericConvert( in->Axis3, arg, db ); break; }
	1432	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcCartesianTransformationOperator3D to be a `IfcDirection`")); }
	1433	} while(0);
	1434	return base;
	1435	}
	1436	// -----------------------------------------------------------------------------------------------------------
	1437	template <> size_t GenericFill<IfcProperty>(const DB& db, const LIST& params, IfcProperty* in)
	1438	{
	1439	size_t base = 0;
	1440	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcProperty"); } do { // convert the 'Name' argument
	1441	boost::shared_ptr<const DataType> arg = params[base++];
	1442	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProperty,2>::aux_is_derived[0]=true; break; }
	1443	try { GenericConvert( in->Name, arg, db ); break; }
	1444	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcProperty to be a `IfcIdentifier`")); }
	1445	} while(0);
	1446	do { // convert the 'Description' argument
	1447	boost::shared_ptr<const DataType> arg = params[base++];
	1448	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProperty,2>::aux_is_derived[1]=true; break; }
	1449	if (dynamic_cast<const UNSET>(&arg)) break;
	1450	try { GenericConvert( in->Description, arg, db ); break; }
	1451	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcProperty to be a `IfcText`")); }
	1452	} while(0);
	1453	return base;
	1454	}
	1455	// -----------------------------------------------------------------------------------------------------------
	1456	template <> size_t GenericFill<IfcSimpleProperty>(const DB& db, const LIST& params, IfcSimpleProperty* in)
	1457	{
	1458	size_t base = GenericFill(db,params,static_cast<IfcProperty*>(in));
	1459	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcSimpleProperty"); } return base;
	1460	}
	1461	// -----------------------------------------------------------------------------------------------------------
	1462	template <> size_t GenericFill<IfcPropertyEnumeratedValue>(const DB& db, const LIST& params, IfcPropertyEnumeratedValue* in)
	1463	{
	1464	size_t base = GenericFill(db,params,static_cast<IfcSimpleProperty*>(in));
	1465	// this data structure is not used yet, so there is no code generated to fill its members
	1466	return base;
	1467	}
	1468	// -----------------------------------------------------------------------------------------------------------
	1469	template <> size_t GenericFill<IfcBuildingElementType>(const DB& db, const LIST& params, IfcBuildingElementType* in)
	1470	{
	1471	size_t base = GenericFill(db,params,static_cast<IfcElementType*>(in));
	1472	// this data structure is not used yet, so there is no code generated to fill its members
	1473	return base;
	1474	}
	1475	// -----------------------------------------------------------------------------------------------------------
	1476	template <> size_t GenericFill<IfcStairFlightType>(const DB& db, const LIST& params, IfcStairFlightType* in)
	1477	{
	1478	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	1479	// this data structure is not used yet, so there is no code generated to fill its members
	1480	return base;
	1481	}
	1482	// -----------------------------------------------------------------------------------------------------------
	1483	template <> size_t GenericFill<IfcSurface>(const DB& db, const LIST& params, IfcSurface* in)
	1484	{
	1485	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	1486	return base;
	1487	}
	1488	// -----------------------------------------------------------------------------------------------------------
	1489	template <> size_t GenericFill<IfcElementarySurface>(const DB& db, const LIST& params, IfcElementarySurface* in)
	1490	{
	1491	size_t base = GenericFill(db,params,static_cast<IfcSurface*>(in));
	1492	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcElementarySurface"); } do { // convert the 'Position' argument
	1493	boost::shared_ptr<const DataType> arg = params[base++];
	1494	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcElementarySurface,1>::aux_is_derived[0]=true; break; }
	1495	try { GenericConvert( in->Position, arg, db ); break; }
	1496	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcElementarySurface to be a `IfcAxis2Placement3D`")); }
	1497	} while(0);
	1498	return base;
	1499	}
	1500	// -----------------------------------------------------------------------------------------------------------
	1501	template <> size_t GenericFill<IfcPlane>(const DB& db, const LIST& params, IfcPlane* in)
	1502	{
	1503	size_t base = GenericFill(db,params,static_cast<IfcElementarySurface*>(in));
	1504	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPlane"); } return base;
	1505	}
	1506	// -----------------------------------------------------------------------------------------------------------
	1507	template <> size_t GenericFill<IfcBooleanResult>(const DB& db, const LIST& params, IfcBooleanResult* in)
	1508	{
	1509	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	1510	if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcBooleanResult"); } do { // convert the 'Operator' argument
	1511	boost::shared_ptr<const DataType> arg = params[base++];
	1512	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBooleanResult,3>::aux_is_derived[0]=true; break; }
	1513	try { GenericConvert( in->Operator, arg, db ); break; }
	1514	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcBooleanResult to be a `IfcBooleanOperator`")); }
	1515	} while(0);
	1516	do { // convert the 'FirstOperand' argument
	1517	boost::shared_ptr<const DataType> arg = params[base++];
	1518	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBooleanResult,3>::aux_is_derived[1]=true; break; }
	1519	try { GenericConvert( in->FirstOperand, arg, db ); break; }
	1520	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcBooleanResult to be a `IfcBooleanOperand`")); }
	1521	} while(0);
	1522	do { // convert the 'SecondOperand' argument
	1523	boost::shared_ptr<const DataType> arg = params[base++];
	1524	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBooleanResult,3>::aux_is_derived[2]=true; break; }
	1525	try { GenericConvert( in->SecondOperand, arg, db ); break; }
	1526	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcBooleanResult to be a `IfcBooleanOperand`")); }
	1527	} while(0);
	1528	return base;
	1529	}
	1530	// -----------------------------------------------------------------------------------------------------------
	1531	template <> size_t GenericFill<IfcBooleanClippingResult>(const DB& db, const LIST& params, IfcBooleanClippingResult* in)
	1532	{
	1533	size_t base = GenericFill(db,params,static_cast<IfcBooleanResult*>(in));
	1534	if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcBooleanClippingResult"); } return base;
	1535	}
	1536	// -----------------------------------------------------------------------------------------------------------
	1537	template <> size_t GenericFill<IfcSolidModel>(const DB& db, const LIST& params, IfcSolidModel* in)
	1538	{
	1539	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	1540	return base;
	1541	}
	1542	// -----------------------------------------------------------------------------------------------------------
	1543	template <> size_t GenericFill<IfcManifoldSolidBrep>(const DB& db, const LIST& params, IfcManifoldSolidBrep* in)
	1544	{
	1545	size_t base = GenericFill(db,params,static_cast<IfcSolidModel*>(in));
	1546	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcManifoldSolidBrep"); } do { // convert the 'Outer' argument
	1547	boost::shared_ptr<const DataType> arg = params[base++];
	1548	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcManifoldSolidBrep,1>::aux_is_derived[0]=true; break; }
	1549	try { GenericConvert( in->Outer, arg, db ); break; }
	1550	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcManifoldSolidBrep to be a `IfcClosedShell`")); }
	1551	} while(0);
	1552	return base;
	1553	}
	1554	// -----------------------------------------------------------------------------------------------------------
	1555	template <> size_t GenericFill<IfcFlowTerminalType>(const DB& db, const LIST& params, IfcFlowTerminalType* in)
	1556	{
	1557	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
	1558	// this data structure is not used yet, so there is no code generated to fill its members
	1559	return base;
	1560	}
	1561	// -----------------------------------------------------------------------------------------------------------
	1562	template <> size_t GenericFill<IfcStackTerminalType>(const DB& db, const LIST& params, IfcStackTerminalType* in)
	1563	{
	1564	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	1565	// this data structure is not used yet, so there is no code generated to fill its members
	1566	return base;
	1567	}
	1568	// -----------------------------------------------------------------------------------------------------------
	1569	template <> size_t GenericFill<IfcStructuralItem>(const DB& db, const LIST& params, IfcStructuralItem* in)
	1570	{
	1571	size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
	1572	// this data structure is not used yet, so there is no code generated to fill its members
	1573	return base;
	1574	}
	1575	// -----------------------------------------------------------------------------------------------------------
	1576	template <> size_t GenericFill<IfcStructuralConnection>(const DB& db, const LIST& params, IfcStructuralConnection* in)
	1577	{
	1578	size_t base = GenericFill(db,params,static_cast<IfcStructuralItem*>(in));
	1579	// this data structure is not used yet, so there is no code generated to fill its members
	1580	return base;
	1581	}
	1582	// -----------------------------------------------------------------------------------------------------------
	1583	template <> size_t GenericFill<IfcStructuralCurveConnection>(const DB& db, const LIST& params, IfcStructuralCurveConnection* in)
	1584	{
	1585	size_t base = GenericFill(db,params,static_cast<IfcStructuralConnection*>(in));
	1586	// this data structure is not used yet, so there is no code generated to fill its members
	1587	return base;
	1588	}
	1589	// -----------------------------------------------------------------------------------------------------------
	1590	template <> size_t GenericFill<IfcJunctionBoxType>(const DB& db, const LIST& params, IfcJunctionBoxType* in)
	1591	{
	1592	size_t base = GenericFill(db,params,static_cast<IfcFlowFittingType*>(in));
	1593	// this data structure is not used yet, so there is no code generated to fill its members
	1594	return base;
	1595	}
	1596	// -----------------------------------------------------------------------------------------------------------
	1597	template <> size_t GenericFill<IfcPropertyDefinition>(const DB& db, const LIST& params, IfcPropertyDefinition* in)
	1598	{
	1599	size_t base = GenericFill(db,params,static_cast<IfcRoot*>(in));
	1600	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcPropertyDefinition"); } return base;
	1601	}
	1602	// -----------------------------------------------------------------------------------------------------------
	1603	template <> size_t GenericFill<IfcPropertySetDefinition>(const DB& db, const LIST& params, IfcPropertySetDefinition* in)
	1604	{
	1605	size_t base = GenericFill(db,params,static_cast<IfcPropertyDefinition*>(in));
	1606	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcPropertySetDefinition"); } return base;
	1607	}
	1608	// -----------------------------------------------------------------------------------------------------------
	1609	template <> size_t GenericFill<IfcProcess>(const DB& db, const LIST& params, IfcProcess* in)
	1610	{
	1611	size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
	1612	// this data structure is not used yet, so there is no code generated to fill its members
	1613	return base;
	1614	}
	1615	// -----------------------------------------------------------------------------------------------------------
	1616	template <> size_t GenericFill<IfcTask>(const DB& db, const LIST& params, IfcTask* in)
	1617	{
	1618	size_t base = GenericFill(db,params,static_cast<IfcProcess*>(in));
	1619	// this data structure is not used yet, so there is no code generated to fill its members
	1620	return base;
	1621	}
	1622	// -----------------------------------------------------------------------------------------------------------
	1623	template <> size_t GenericFill<IfcRelFillsElement>(const DB& db, const LIST& params, IfcRelFillsElement* in)
	1624	{
	1625	size_t base = GenericFill(db,params,static_cast<IfcRelConnects*>(in));
	1626	if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelFillsElement"); } do { // convert the 'RelatingOpeningElement' argument
	1627	boost::shared_ptr<const DataType> arg = params[base++];
	1628	try { GenericConvert( in->RelatingOpeningElement, arg, db ); break; }
	1629	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRelFillsElement to be a `IfcOpeningElement`")); }
	1630	} while(0);
	1631	do { // convert the 'RelatedBuildingElement' argument
	1632	boost::shared_ptr<const DataType> arg = params[base++];
	1633	try { GenericConvert( in->RelatedBuildingElement, arg, db ); break; }
	1634	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcRelFillsElement to be a `IfcElement`")); }
	1635	} while(0);
	1636	return base;
	1637	}
	1638	// -----------------------------------------------------------------------------------------------------------
	1639	template <> size_t GenericFill<IfcProcedure>(const DB& db, const LIST& params, IfcProcedure* in)
	1640	{
	1641	size_t base = GenericFill(db,params,static_cast<IfcProcess*>(in));
	1642	// this data structure is not used yet, so there is no code generated to fill its members
	1643	return base;
	1644	}
	1645	// -----------------------------------------------------------------------------------------------------------
	1646	template <> size_t GenericFill<IfcProxy>(const DB& db, const LIST& params, IfcProxy* in)
	1647	{
	1648	size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
	1649	// this data structure is not used yet, so there is no code generated to fill its members
	1650	return base;
	1651	}
	1652	// -----------------------------------------------------------------------------------------------------------
	1653	template <> size_t GenericFill<IfcResource>(const DB& db, const LIST& params, IfcResource* in)
	1654	{
	1655	size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
	1656	// this data structure is not used yet, so there is no code generated to fill its members
	1657	return base;
	1658	}
	1659	// -----------------------------------------------------------------------------------------------------------
	1660	template <> size_t GenericFill<IfcConstructionResource>(const DB& db, const LIST& params, IfcConstructionResource* in)
	1661	{
	1662	size_t base = GenericFill(db,params,static_cast<IfcResource*>(in));
	1663	// this data structure is not used yet, so there is no code generated to fill its members
	1664	return base;
	1665	}
	1666	// -----------------------------------------------------------------------------------------------------------
	1667	template <> size_t GenericFill<IfcSubContractResource>(const DB& db, const LIST& params, IfcSubContractResource* in)
	1668	{
	1669	size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
	1670	// this data structure is not used yet, so there is no code generated to fill its members
	1671	return base;
	1672	}
	1673	// -----------------------------------------------------------------------------------------------------------
	1674	template <> size_t GenericFill<IfcRelContainedInSpatialStructure>(const DB& db, const LIST& params, IfcRelContainedInSpatialStructure* in)
	1675	{
	1676	size_t base = GenericFill(db,params,static_cast<IfcRelConnects*>(in));
	1677	if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelContainedInSpatialStructure"); } do { // convert the 'RelatedElements' argument
	1678	boost::shared_ptr<const DataType> arg = params[base++];
	1679	try { GenericConvert( in->RelatedElements, arg, db ); break; }
	1680	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRelContainedInSpatialStructure to be a `SET [1:?] OF IfcProduct`")); }
	1681	} while(0);
	1682	do { // convert the 'RelatingStructure' argument
	1683	boost::shared_ptr<const DataType> arg = params[base++];
	1684	try { GenericConvert( in->RelatingStructure, arg, db ); break; }
	1685	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcRelContainedInSpatialStructure to be a `IfcSpatialStructureElement`")); }
	1686	} while(0);
	1687	return base;
	1688	}
	1689	// -----------------------------------------------------------------------------------------------------------
	1690	template <> size_t GenericFill<IfcTopologicalRepresentationItem>(const DB& db, const LIST& params, IfcTopologicalRepresentationItem* in)
	1691	{
	1692	size_t base = GenericFill(db,params,static_cast<IfcRepresentationItem*>(in));
	1693	return base;
	1694	}
	1695	// -----------------------------------------------------------------------------------------------------------
	1696	template <> size_t GenericFill<IfcEdge>(const DB& db, const LIST& params, IfcEdge* in)
	1697	{
	1698	size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
	1699	// this data structure is not used yet, so there is no code generated to fill its members
	1700	return base;
	1701	}
	1702	// -----------------------------------------------------------------------------------------------------------
	1703	template <> size_t GenericFill<IfcEdgeCurve>(const DB& db, const LIST& params, IfcEdgeCurve* in)
	1704	{
	1705	size_t base = GenericFill(db,params,static_cast<IfcEdge*>(in));
	1706	// this data structure is not used yet, so there is no code generated to fill its members
	1707	return base;
	1708	}
	1709	// -----------------------------------------------------------------------------------------------------------
	1710	template <> size_t GenericFill<IfcPlateType>(const DB& db, const LIST& params, IfcPlateType* in)
	1711	{
	1712	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	1713	// this data structure is not used yet, so there is no code generated to fill its members
	1714	return base;
	1715	}
	1716	// -----------------------------------------------------------------------------------------------------------
	1717	template <> size_t GenericFill<IfcObjectPlacement>(const DB& db, const LIST& params, IfcObjectPlacement* in)
	1718	{
	1719	size_t base = 0;
	1720	return base;
	1721	}
	1722	// -----------------------------------------------------------------------------------------------------------
	1723	template <> size_t GenericFill<IfcGridPlacement>(const DB& db, const LIST& params, IfcGridPlacement* in)
	1724	{
	1725	size_t base = GenericFill(db,params,static_cast<IfcObjectPlacement*>(in));
	1726	// this data structure is not used yet, so there is no code generated to fill its members
	1727	return base;
	1728	}
	1729	// -----------------------------------------------------------------------------------------------------------
	1730	template <> size_t GenericFill<IfcFireSuppressionTerminalType>(const DB& db, const LIST& params, IfcFireSuppressionTerminalType* in)
	1731	{
	1732	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	1733	// this data structure is not used yet, so there is no code generated to fill its members
	1734	return base;
	1735	}
	1736	// -----------------------------------------------------------------------------------------------------------
	1737	template <> size_t GenericFill<IfcFlowStorageDevice>(const DB& db, const LIST& params, IfcFlowStorageDevice* in)
	1738	{
	1739	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
	1740	// this data structure is not used yet, so there is no code generated to fill its members
	1741	return base;
	1742	}
	1743	// -----------------------------------------------------------------------------------------------------------
	1744	template <> size_t GenericFill<IfcSweptSurface>(const DB& db, const LIST& params, IfcSweptSurface* in)
	1745	{
	1746	size_t base = GenericFill(db,params,static_cast<IfcSurface*>(in));
	1747	// this data structure is not used yet, so there is no code generated to fill its members
	1748	return base;
	1749	}
	1750	// -----------------------------------------------------------------------------------------------------------
	1751	template <> size_t GenericFill<IfcSurfaceOfRevolution>(const DB& db, const LIST& params, IfcSurfaceOfRevolution* in)
	1752	{
	1753	size_t base = GenericFill(db,params,static_cast<IfcSweptSurface*>(in));
	1754	// this data structure is not used yet, so there is no code generated to fill its members
	1755	return base;
	1756	}
	1757	// -----------------------------------------------------------------------------------------------------------
	1758	template <> size_t GenericFill<IfcOrientedEdge>(const DB& db, const LIST& params, IfcOrientedEdge* in)
	1759	{
	1760	size_t base = GenericFill(db,params,static_cast<IfcEdge*>(in));
	1761	// this data structure is not used yet, so there is no code generated to fill its members
	1762	return base;
	1763	}
	1764	// -----------------------------------------------------------------------------------------------------------
	1765	template <> size_t GenericFill<IfcDirection>(const DB& db, const LIST& params, IfcDirection* in)
	1766	{
	1767	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	1768	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcDirection"); } do { // convert the 'DirectionRatios' argument
	1769	boost::shared_ptr<const DataType> arg = params[base++];
	1770	try { GenericConvert( in->DirectionRatios, arg, db ); break; }
	1771	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcDirection to be a `LIST [2:3] OF REAL`")); }
	1772	} while(0);
	1773	return base;
	1774	}
	1775	// -----------------------------------------------------------------------------------------------------------
	1776	template <> size_t GenericFill<IfcProfileDef>(const DB& db, const LIST& params, IfcProfileDef* in)
	1777	{
	1778	size_t base = 0;
	1779	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcProfileDef"); } do { // convert the 'ProfileType' argument
	1780	boost::shared_ptr<const DataType> arg = params[base++];
	1781	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProfileDef,2>::aux_is_derived[0]=true; break; }
	1782	try { GenericConvert( in->ProfileType, arg, db ); break; }
	1783	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcProfileDef to be a `IfcProfileTypeEnum`")); }
	1784	} while(0);
	1785	do { // convert the 'ProfileName' argument
	1786	boost::shared_ptr<const DataType> arg = params[base++];
	1787	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProfileDef,2>::aux_is_derived[1]=true; break; }
	1788	if (dynamic_cast<const UNSET>(&arg)) break;
	1789	try { GenericConvert( in->ProfileName, arg, db ); break; }
	1790	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcProfileDef to be a `IfcLabel`")); }
	1791	} while(0);
	1792	return base;
	1793	}
	1794	// -----------------------------------------------------------------------------------------------------------
	1795	template <> size_t GenericFill<IfcParameterizedProfileDef>(const DB& db, const LIST& params, IfcParameterizedProfileDef* in)
	1796	{
	1797	size_t base = GenericFill(db,params,static_cast<IfcProfileDef*>(in));
	1798	if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcParameterizedProfileDef"); } do { // convert the 'Position' argument
	1799	boost::shared_ptr<const DataType> arg = params[base++];
	1800	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcParameterizedProfileDef,1>::aux_is_derived[0]=true; break; }
	1801	try { GenericConvert( in->Position, arg, db ); break; }
	1802	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcParameterizedProfileDef to be a `IfcAxis2Placement2D`")); }
	1803	} while(0);
	1804	return base;
	1805	}
	1806	// -----------------------------------------------------------------------------------------------------------
	1807	template <> size_t GenericFill<IfcCShapeProfileDef>(const DB& db, const LIST& params, IfcCShapeProfileDef* in)
	1808	{
	1809	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	1810	// this data structure is not used yet, so there is no code generated to fill its members
	1811	return base;
	1812	}
	1813	// -----------------------------------------------------------------------------------------------------------
	1814	template <> size_t GenericFill<IfcFeatureElement>(const DB& db, const LIST& params, IfcFeatureElement* in)
	1815	{
	1816	size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
	1817	if (params.GetSize() < 8) { throw STEP::TypeError("expected 8 arguments to IfcFeatureElement"); } return base;
	1818	}
	1819	// -----------------------------------------------------------------------------------------------------------
	1820	template <> size_t GenericFill<IfcFeatureElementSubtraction>(const DB& db, const LIST& params, IfcFeatureElementSubtraction* in)
	1821	{
	1822	size_t base = GenericFill(db,params,static_cast<IfcFeatureElement*>(in));
	1823	if (params.GetSize() < 8) { throw STEP::TypeError("expected 8 arguments to IfcFeatureElementSubtraction"); } return base;
	1824	}
	1825	// -----------------------------------------------------------------------------------------------------------
	1826	template <> size_t GenericFill<IfcEdgeFeature>(const DB& db, const LIST& params, IfcEdgeFeature* in)
	1827	{
	1828	size_t base = GenericFill(db,params,static_cast<IfcFeatureElementSubtraction*>(in));
	1829	// this data structure is not used yet, so there is no code generated to fill its members
	1830	return base;
	1831	}
	1832	// -----------------------------------------------------------------------------------------------------------
	1833	template <> size_t GenericFill<IfcChamferEdgeFeature>(const DB& db, const LIST& params, IfcChamferEdgeFeature* in)
	1834	{
	1835	size_t base = GenericFill(db,params,static_cast<IfcEdgeFeature*>(in));
	1836	// this data structure is not used yet, so there is no code generated to fill its members
	1837	return base;
	1838	}
	1839	// -----------------------------------------------------------------------------------------------------------
	1840	template <> size_t GenericFill<IfcBuildingElement>(const DB& db, const LIST& params, IfcBuildingElement* in)
	1841	{
	1842	size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
	1843	if (params.GetSize() < 8) { throw STEP::TypeError("expected 8 arguments to IfcBuildingElement"); } return base;
	1844	}
	1845	// -----------------------------------------------------------------------------------------------------------
	1846	template <> size_t GenericFill<IfcColumn>(const DB& db, const LIST& params, IfcColumn* in)
	1847	{
	1848	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	1849	// this data structure is not used yet, so there is no code generated to fill its members
	1850	return base;
	1851	}
	1852	// -----------------------------------------------------------------------------------------------------------
	1853	template <> size_t GenericFill<IfcPropertyReferenceValue>(const DB& db, const LIST& params, IfcPropertyReferenceValue* in)
	1854	{
	1855	size_t base = GenericFill(db,params,static_cast<IfcSimpleProperty*>(in));
	1856	// this data structure is not used yet, so there is no code generated to fill its members
	1857	return base;
	1858	}
	1859	// -----------------------------------------------------------------------------------------------------------
	1860	template <> size_t GenericFill<IfcElectricMotorType>(const DB& db, const LIST& params, IfcElectricMotorType* in)
	1861	{
	1862	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	1863	// this data structure is not used yet, so there is no code generated to fill its members
	1864	return base;
	1865	}
	1866	// -----------------------------------------------------------------------------------------------------------
1214	1867	template <> size_t GenericFill<IfcSpatialStructureElementType>(const DB& db, const LIST& params, IfcSpatialStructureElementType* in)
1215	1868	{
1216	1869	size_t base = GenericFill(db,params,static_cast<IfcElementType*>(in));

1218	1871	return base;
1219	1872	}
1220	1873	// -----------------------------------------------------------------------------------------------------------
1221		template <> size_t GenericFill<IfcControl>(const DB& db, const LIST& params, IfcControl* in)
1222		{
1223		size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
1224		// this data structure is not used yet, so there is no code generated to fill its members
1225		return base;
1226		}
1227		// -----------------------------------------------------------------------------------------------------------
1228		template <> size_t GenericFill<IfcActionRequest>(const DB& db, const LIST& params, IfcActionRequest* in)
	1874	template <> size_t GenericFill<IfcSpaceType>(const DB& db, const LIST& params, IfcSpaceType* in)
	1875	{
	1876	size_t base = GenericFill(db,params,static_cast<IfcSpatialStructureElementType*>(in));
	1877	// this data structure is not used yet, so there is no code generated to fill its members
	1878	return base;
	1879	}
	1880	// -----------------------------------------------------------------------------------------------------------
	1881	template <> size_t GenericFill<IfcColumnType>(const DB& db, const LIST& params, IfcColumnType* in)
	1882	{
	1883	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	1884	// this data structure is not used yet, so there is no code generated to fill its members
	1885	return base;
	1886	}
	1887	// -----------------------------------------------------------------------------------------------------------
	1888	template <> size_t GenericFill<IfcCraneRailAShapeProfileDef>(const DB& db, const LIST& params, IfcCraneRailAShapeProfileDef* in)
	1889	{
	1890	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	1891	// this data structure is not used yet, so there is no code generated to fill its members
	1892	return base;
	1893	}
	1894	// -----------------------------------------------------------------------------------------------------------
	1895	template <> size_t GenericFill<IfcCondenserType>(const DB& db, const LIST& params, IfcCondenserType* in)
	1896	{
	1897	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	1898	// this data structure is not used yet, so there is no code generated to fill its members
	1899	return base;
	1900	}
	1901	// -----------------------------------------------------------------------------------------------------------
	1902	template <> size_t GenericFill<IfcCircleProfileDef>(const DB& db, const LIST& params, IfcCircleProfileDef* in)
	1903	{
	1904	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	1905	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcCircleProfileDef"); } do { // convert the 'Radius' argument
	1906	boost::shared_ptr<const DataType> arg = params[base++];
	1907	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCircleProfileDef,1>::aux_is_derived[0]=true; break; }
	1908	try { GenericConvert( in->Radius, arg, db ); break; }
	1909	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcCircleProfileDef to be a `IfcPositiveLengthMeasure`")); }
	1910	} while(0);
	1911	return base;
	1912	}
	1913	// -----------------------------------------------------------------------------------------------------------
	1914	template <> size_t GenericFill<IfcCircleHollowProfileDef>(const DB& db, const LIST& params, IfcCircleHollowProfileDef* in)
	1915	{
	1916	size_t base = GenericFill(db,params,static_cast<IfcCircleProfileDef*>(in));
	1917	if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcCircleHollowProfileDef"); } do { // convert the 'WallThickness' argument
	1918	boost::shared_ptr<const DataType> arg = params[base++];
	1919	try { GenericConvert( in->WallThickness, arg, db ); break; }
	1920	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcCircleHollowProfileDef to be a `IfcPositiveLengthMeasure`")); }
	1921	} while(0);
	1922	return base;
	1923	}
	1924	// -----------------------------------------------------------------------------------------------------------
	1925	template <> size_t GenericFill<IfcPlacement>(const DB& db, const LIST& params, IfcPlacement* in)
	1926	{
	1927	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	1928	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPlacement"); } do { // convert the 'Location' argument
	1929	boost::shared_ptr<const DataType> arg = params[base++];
	1930	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcPlacement,1>::aux_is_derived[0]=true; break; }
	1931	try { GenericConvert( in->Location, arg, db ); break; }
	1932	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcPlacement to be a `IfcCartesianPoint`")); }
	1933	} while(0);
	1934	return base;
	1935	}
	1936	// -----------------------------------------------------------------------------------------------------------
	1937	template <> size_t GenericFill<IfcAxis2Placement3D>(const DB& db, const LIST& params, IfcAxis2Placement3D* in)
	1938	{
	1939	size_t base = GenericFill(db,params,static_cast<IfcPlacement*>(in));
	1940	if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcAxis2Placement3D"); } do { // convert the 'Axis' argument
	1941	boost::shared_ptr<const DataType> arg = params[base++];
	1942	if (dynamic_cast<const UNSET>(&arg)) break;
	1943	try { GenericConvert( in->Axis, arg, db ); break; }
	1944	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcAxis2Placement3D to be a `IfcDirection`")); }
	1945	} while(0);
	1946	do { // convert the 'RefDirection' argument
	1947	boost::shared_ptr<const DataType> arg = params[base++];
	1948	if (dynamic_cast<const UNSET>(&arg)) break;
	1949	try { GenericConvert( in->RefDirection, arg, db ); break; }
	1950	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcAxis2Placement3D to be a `IfcDirection`")); }
	1951	} while(0);
	1952	return base;
	1953	}
	1954	// -----------------------------------------------------------------------------------------------------------
	1955	template <> size_t GenericFill<IfcPresentationStyle>(const DB& db, const LIST& params, IfcPresentationStyle* in)
	1956	{
	1957	size_t base = 0;
	1958	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPresentationStyle"); } do { // convert the 'Name' argument
	1959	boost::shared_ptr<const DataType> arg = params[base++];
	1960	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcPresentationStyle,1>::aux_is_derived[0]=true; break; }
	1961	if (dynamic_cast<const UNSET>(&arg)) break;
	1962	try { GenericConvert( in->Name, arg, db ); break; }
	1963	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcPresentationStyle to be a `IfcLabel`")); }
	1964	} while(0);
	1965	return base;
	1966	}
	1967	// -----------------------------------------------------------------------------------------------------------
	1968	template <> size_t GenericFill<IfcEquipmentElement>(const DB& db, const LIST& params, IfcEquipmentElement* in)
	1969	{
	1970	size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
	1971	// this data structure is not used yet, so there is no code generated to fill its members
	1972	return base;
	1973	}
	1974	// -----------------------------------------------------------------------------------------------------------
	1975	template <> size_t GenericFill<IfcCompositeCurveSegment>(const DB& db, const LIST& params, IfcCompositeCurveSegment* in)
	1976	{
	1977	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	1978	if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcCompositeCurveSegment"); } do { // convert the 'Transition' argument
	1979	boost::shared_ptr<const DataType> arg = params[base++];
	1980	try { GenericConvert( in->Transition, arg, db ); break; }
	1981	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcCompositeCurveSegment to be a `IfcTransitionCode`")); }
	1982	} while(0);
	1983	do { // convert the 'SameSense' argument
	1984	boost::shared_ptr<const DataType> arg = params[base++];
	1985	try { GenericConvert( in->SameSense, arg, db ); break; }
	1986	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcCompositeCurveSegment to be a `BOOLEAN`")); }
	1987	} while(0);
	1988	do { // convert the 'ParentCurve' argument
	1989	boost::shared_ptr<const DataType> arg = params[base++];
	1990	try { GenericConvert( in->ParentCurve, arg, db ); break; }
	1991	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcCompositeCurveSegment to be a `IfcCurve`")); }
	1992	} while(0);
	1993	return base;
	1994	}
	1995	// -----------------------------------------------------------------------------------------------------------
	1996	template <> size_t GenericFill<IfcRectangleProfileDef>(const DB& db, const LIST& params, IfcRectangleProfileDef* in)
	1997	{
	1998	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	1999	if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcRectangleProfileDef"); } do { // convert the 'XDim' argument
	2000	boost::shared_ptr<const DataType> arg = params[base++];
	2001	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRectangleProfileDef,2>::aux_is_derived[0]=true; break; }
	2002	try { GenericConvert( in->XDim, arg, db ); break; }
	2003	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcRectangleProfileDef to be a `IfcPositiveLengthMeasure`")); }
	2004	} while(0);
	2005	do { // convert the 'YDim' argument
	2006	boost::shared_ptr<const DataType> arg = params[base++];
	2007	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRectangleProfileDef,2>::aux_is_derived[1]=true; break; }
	2008	try { GenericConvert( in->YDim, arg, db ); break; }
	2009	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRectangleProfileDef to be a `IfcPositiveLengthMeasure`")); }
	2010	} while(0);
	2011	return base;
	2012	}
	2013	// -----------------------------------------------------------------------------------------------------------
	2014	template <> size_t GenericFill<IfcBuildingElementProxy>(const DB& db, const LIST& params, IfcBuildingElementProxy* in)
	2015	{
	2016	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	2017	// this data structure is not used yet, so there is no code generated to fill its members
	2018	return base;
	2019	}
	2020	// -----------------------------------------------------------------------------------------------------------
	2021	template <> size_t GenericFill<IfcDistributionControlElementType>(const DB& db, const LIST& params, IfcDistributionControlElementType* in)
	2022	{
	2023	size_t base = GenericFill(db,params,static_cast<IfcDistributionElementType*>(in));
	2024	// this data structure is not used yet, so there is no code generated to fill its members
	2025	return base;
	2026	}
	2027	// -----------------------------------------------------------------------------------------------------------
	2028	template <> size_t GenericFill<IfcFlowInstrumentType>(const DB& db, const LIST& params, IfcFlowInstrumentType* in)
	2029	{
	2030	size_t base = GenericFill(db,params,static_cast<IfcDistributionControlElementType*>(in));
	2031	// this data structure is not used yet, so there is no code generated to fill its members
	2032	return base;
	2033	}
	2034	// -----------------------------------------------------------------------------------------------------------
	2035	template <> size_t GenericFill<IfcDraughtingCallout>(const DB& db, const LIST& params, IfcDraughtingCallout* in)
	2036	{
	2037	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	2038	// this data structure is not used yet, so there is no code generated to fill its members
	2039	return base;
	2040	}
	2041	// -----------------------------------------------------------------------------------------------------------
	2042	template <> size_t GenericFill<IfcDimensionCurveDirectedCallout>(const DB& db, const LIST& params, IfcDimensionCurveDirectedCallout* in)
	2043	{
	2044	size_t base = GenericFill(db,params,static_cast<IfcDraughtingCallout*>(in));
	2045	// this data structure is not used yet, so there is no code generated to fill its members
	2046	return base;
	2047	}
	2048	// -----------------------------------------------------------------------------------------------------------
	2049	template <> size_t GenericFill<IfcLinearDimension>(const DB& db, const LIST& params, IfcLinearDimension* in)
	2050	{
	2051	size_t base = GenericFill(db,params,static_cast<IfcDimensionCurveDirectedCallout*>(in));
	2052	// this data structure is not used yet, so there is no code generated to fill its members
	2053	return base;
	2054	}
	2055	// -----------------------------------------------------------------------------------------------------------
	2056	template <> size_t GenericFill<IfcElementAssembly>(const DB& db, const LIST& params, IfcElementAssembly* in)
	2057	{
	2058	size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
	2059	// this data structure is not used yet, so there is no code generated to fill its members
	2060	return base;
	2061	}
	2062	// -----------------------------------------------------------------------------------------------------------
	2063	template <> size_t GenericFill<IfcCsgPrimitive3D>(const DB& db, const LIST& params, IfcCsgPrimitive3D* in)
	2064	{
	2065	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	2066	// this data structure is not used yet, so there is no code generated to fill its members
	2067	return base;
	2068	}
	2069	// -----------------------------------------------------------------------------------------------------------
	2070	template <> size_t GenericFill<IfcRightCircularCone>(const DB& db, const LIST& params, IfcRightCircularCone* in)
	2071	{
	2072	size_t base = GenericFill(db,params,static_cast<IfcCsgPrimitive3D*>(in));
	2073	// this data structure is not used yet, so there is no code generated to fill its members
	2074	return base;
	2075	}
	2076	// -----------------------------------------------------------------------------------------------------------
	2077	template <> size_t GenericFill<IfcProjectOrder>(const DB& db, const LIST& params, IfcProjectOrder* in)
1229	2078	{
1230	2079	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
1231	2080	// this data structure is not used yet, so there is no code generated to fill its members
1232	2081	return base;
1233	2082	}
1234	2083	// -----------------------------------------------------------------------------------------------------------
1235		template <> size_t GenericFill<IfcDistributionElementType>(const DB& db, const LIST& params, IfcDistributionElementType* in)
1236		{
1237		size_t base = GenericFill(db,params,static_cast<IfcElementType*>(in));
1238		// this data structure is not used yet, so there is no code generated to fill its members
1239		return base;
1240		}
1241		// -----------------------------------------------------------------------------------------------------------
1242		template <> size_t GenericFill<IfcDistributionFlowElementType>(const DB& db, const LIST& params, IfcDistributionFlowElementType* in)
1243		{
1244		size_t base = GenericFill(db,params,static_cast<IfcDistributionElementType*>(in));
1245		// this data structure is not used yet, so there is no code generated to fill its members
1246		return base;
1247		}
1248		// -----------------------------------------------------------------------------------------------------------
1249		template <> size_t GenericFill<IfcEnergyConversionDeviceType>(const DB& db, const LIST& params, IfcEnergyConversionDeviceType* in)
1250		{
1251		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
1252		// this data structure is not used yet, so there is no code generated to fill its members
1253		return base;
1254		}
1255		// -----------------------------------------------------------------------------------------------------------
1256		template <> size_t GenericFill<IfcCooledBeamType>(const DB& db, const LIST& params, IfcCooledBeamType* in)
1257		{
1258		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
1259		// this data structure is not used yet, so there is no code generated to fill its members
1260		return base;
1261		}
1262		// -----------------------------------------------------------------------------------------------------------
1263		template <> size_t GenericFill<IfcCsgPrimitive3D>(const DB& db, const LIST& params, IfcCsgPrimitive3D* in)
1264		{
1265		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
1266		// this data structure is not used yet, so there is no code generated to fill its members
1267		return base;
1268		}
1269		// -----------------------------------------------------------------------------------------------------------
1270		template <> size_t GenericFill<IfcRectangularPyramid>(const DB& db, const LIST& params, IfcRectangularPyramid* in)
1271		{
1272		size_t base = GenericFill(db,params,static_cast<IfcCsgPrimitive3D*>(in));
1273		// this data structure is not used yet, so there is no code generated to fill its members
1274		return base;
1275		}
1276		// -----------------------------------------------------------------------------------------------------------
1277		template <> size_t GenericFill<IfcSurface>(const DB& db, const LIST& params, IfcSurface* in)
1278		{
1279		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
1280		return base;
1281		}
1282		// -----------------------------------------------------------------------------------------------------------
1283		template <> size_t GenericFill<IfcBoundedSurface>(const DB& db, const LIST& params, IfcBoundedSurface* in)
1284		{
1285		size_t base = GenericFill(db,params,static_cast<IfcSurface*>(in));
1286		// this data structure is not used yet, so there is no code generated to fill its members
1287		return base;
1288		}
1289		// -----------------------------------------------------------------------------------------------------------
1290		template <> size_t GenericFill<IfcRectangularTrimmedSurface>(const DB& db, const LIST& params, IfcRectangularTrimmedSurface* in)
1291		{
1292		size_t base = GenericFill(db,params,static_cast<IfcBoundedSurface*>(in));
1293		// this data structure is not used yet, so there is no code generated to fill its members
1294		return base;
1295		}
1296		// -----------------------------------------------------------------------------------------------------------
1297		template <> size_t GenericFill<IfcGroup>(const DB& db, const LIST& params, IfcGroup* in)
1298		{
1299		size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
1300		// this data structure is not used yet, so there is no code generated to fill its members
1301		return base;
1302		}
1303		// -----------------------------------------------------------------------------------------------------------
1304		template <> size_t GenericFill<IfcRelationship>(const DB& db, const LIST& params, IfcRelationship* in)
1305		{
1306		size_t base = GenericFill(db,params,static_cast<IfcRoot*>(in));
1307		if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcRelationship"); } return base;
	2084	template <> size_t GenericFill<IfcLShapeProfileDef>(const DB& db, const LIST& params, IfcLShapeProfileDef* in)
	2085	{
	2086	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	2087	// this data structure is not used yet, so there is no code generated to fill its members
	2088	return base;
	2089	}
	2090	// -----------------------------------------------------------------------------------------------------------
	2091	template <> size_t GenericFill<IfcAngularDimension>(const DB& db, const LIST& params, IfcAngularDimension* in)
	2092	{
	2093	size_t base = GenericFill(db,params,static_cast<IfcDimensionCurveDirectedCallout*>(in));
	2094	// this data structure is not used yet, so there is no code generated to fill its members
	2095	return base;
	2096	}
	2097	// -----------------------------------------------------------------------------------------------------------
	2098	template <> size_t GenericFill<IfcLocalPlacement>(const DB& db, const LIST& params, IfcLocalPlacement* in)
	2099	{
	2100	size_t base = GenericFill(db,params,static_cast<IfcObjectPlacement*>(in));
	2101	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcLocalPlacement"); } do { // convert the 'PlacementRelTo' argument
	2102	boost::shared_ptr<const DataType> arg = params[base++];
	2103	if (dynamic_cast<const UNSET>(&arg)) break;
	2104	try { GenericConvert( in->PlacementRelTo, arg, db ); break; }
	2105	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcLocalPlacement to be a `IfcObjectPlacement`")); }
	2106	} while(0);
	2107	do { // convert the 'RelativePlacement' argument
	2108	boost::shared_ptr<const DataType> arg = params[base++];
	2109	try { GenericConvert( in->RelativePlacement, arg, db ); break; }
	2110	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcLocalPlacement to be a `IfcAxis2Placement`")); }
	2111	} while(0);
	2112	return base;
	2113	}
	2114	// -----------------------------------------------------------------------------------------------------------
	2115	template <> size_t GenericFill<IfcSweptAreaSolid>(const DB& db, const LIST& params, IfcSweptAreaSolid* in)
	2116	{
	2117	size_t base = GenericFill(db,params,static_cast<IfcSolidModel*>(in));
	2118	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcSweptAreaSolid"); } do { // convert the 'SweptArea' argument
	2119	boost::shared_ptr<const DataType> arg = params[base++];
	2120	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcSweptAreaSolid,2>::aux_is_derived[0]=true; break; }
	2121	try { GenericConvert( in->SweptArea, arg, db ); break; }
	2122	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcSweptAreaSolid to be a `IfcProfileDef`")); }
	2123	} while(0);
	2124	do { // convert the 'Position' argument
	2125	boost::shared_ptr<const DataType> arg = params[base++];
	2126	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcSweptAreaSolid,2>::aux_is_derived[1]=true; break; }
	2127	try { GenericConvert( in->Position, arg, db ); break; }
	2128	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcSweptAreaSolid to be a `IfcAxis2Placement3D`")); }
	2129	} while(0);
	2130	return base;
	2131	}
	2132	// -----------------------------------------------------------------------------------------------------------
	2133	template <> size_t GenericFill<IfcRevolvedAreaSolid>(const DB& db, const LIST& params, IfcRevolvedAreaSolid* in)
	2134	{
	2135	size_t base = GenericFill(db,params,static_cast<IfcSweptAreaSolid*>(in));
	2136	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcRevolvedAreaSolid"); } do { // convert the 'Axis' argument
	2137	boost::shared_ptr<const DataType> arg = params[base++];
	2138	try { GenericConvert( in->Axis, arg, db ); break; }
	2139	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcRevolvedAreaSolid to be a `IfcAxis1Placement`")); }
	2140	} while(0);
	2141	do { // convert the 'Angle' argument
	2142	boost::shared_ptr<const DataType> arg = params[base++];
	2143	try { GenericConvert( in->Angle, arg, db ); break; }
	2144	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcRevolvedAreaSolid to be a `IfcPlaneAngleMeasure`")); }
	2145	} while(0);
	2146	return base;
	2147	}
	2148	// -----------------------------------------------------------------------------------------------------------
	2149	template <> size_t GenericFill<IfcStructuralSurfaceConnection>(const DB& db, const LIST& params, IfcStructuralSurfaceConnection* in)
	2150	{
	2151	size_t base = GenericFill(db,params,static_cast<IfcStructuralConnection*>(in));
	2152	// this data structure is not used yet, so there is no code generated to fill its members
	2153	return base;
	2154	}
	2155	// -----------------------------------------------------------------------------------------------------------
	2156	template <> size_t GenericFill<IfcRadiusDimension>(const DB& db, const LIST& params, IfcRadiusDimension* in)
	2157	{
	2158	size_t base = GenericFill(db,params,static_cast<IfcDimensionCurveDirectedCallout*>(in));
	2159	// this data structure is not used yet, so there is no code generated to fill its members
	2160	return base;
	2161	}
	2162	// -----------------------------------------------------------------------------------------------------------
	2163	template <> size_t GenericFill<IfcSweptDiskSolid>(const DB& db, const LIST& params, IfcSweptDiskSolid* in)
	2164	{
	2165	size_t base = GenericFill(db,params,static_cast<IfcSolidModel*>(in));
	2166	if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcSweptDiskSolid"); } do { // convert the 'Directrix' argument
	2167	boost::shared_ptr<const DataType> arg = params[base++];
	2168	try { GenericConvert( in->Directrix, arg, db ); break; }
	2169	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcSweptDiskSolid to be a `IfcCurve`")); }
	2170	} while(0);
	2171	do { // convert the 'Radius' argument
	2172	boost::shared_ptr<const DataType> arg = params[base++];
	2173	try { GenericConvert( in->Radius, arg, db ); break; }
	2174	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcSweptDiskSolid to be a `IfcPositiveLengthMeasure`")); }
	2175	} while(0);
	2176	do { // convert the 'InnerRadius' argument
	2177	boost::shared_ptr<const DataType> arg = params[base++];
	2178	if (dynamic_cast<const UNSET>(&arg)) break;
	2179	try { GenericConvert( in->InnerRadius, arg, db ); break; }
	2180	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcSweptDiskSolid to be a `IfcPositiveLengthMeasure`")); }
	2181	} while(0);
	2182	do { // convert the 'StartParam' argument
	2183	boost::shared_ptr<const DataType> arg = params[base++];
	2184	try { GenericConvert( in->StartParam, arg, db ); break; }
	2185	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcSweptDiskSolid to be a `IfcParameterValue`")); }
	2186	} while(0);
	2187	do { // convert the 'EndParam' argument
	2188	boost::shared_ptr<const DataType> arg = params[base++];
	2189	try { GenericConvert( in->EndParam, arg, db ); break; }
	2190	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcSweptDiskSolid to be a `IfcParameterValue`")); }
	2191	} while(0);
	2192	return base;
1308	2193	}
1309	2194	// -----------------------------------------------------------------------------------------------------------
1310	2195	template <> size_t GenericFill<IfcHalfSpaceSolid>(const DB& db, const LIST& params, IfcHalfSpaceSolid* in)

1341	2226	return base;
1342	2227	}
1343	2228	// -----------------------------------------------------------------------------------------------------------
1344		template <> size_t GenericFill<IfcAirToAirHeatRecoveryType>(const DB& db, const LIST& params, IfcAirToAirHeatRecoveryType* in)
	2229	template <> size_t GenericFill<IfcTimeSeriesSchedule>(const DB& db, const LIST& params, IfcTimeSeriesSchedule* in)
	2230	{
	2231	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	2232	// this data structure is not used yet, so there is no code generated to fill its members
	2233	return base;
	2234	}
	2235	// -----------------------------------------------------------------------------------------------------------
	2236	template <> size_t GenericFill<IfcCooledBeamType>(const DB& db, const LIST& params, IfcCooledBeamType* in)
1345	2237	{
1346	2238	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
1347	2239	// this data structure is not used yet, so there is no code generated to fill its members
1348	2240	return base;
1349	2241	}
1350	2242	// -----------------------------------------------------------------------------------------------------------
1351		template <> size_t GenericFill<IfcFlowFittingType>(const DB& db, const LIST& params, IfcFlowFittingType* in)
	2243	template <> size_t GenericFill<IfcProject>(const DB& db, const LIST& params, IfcProject* in)
	2244	{
	2245	size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
	2246	if (params.GetSize() < 9) { throw STEP::TypeError("expected 9 arguments to IfcProject"); } do { // convert the 'LongName' argument
	2247	boost::shared_ptr<const DataType> arg = params[base++];
	2248	if (dynamic_cast<const UNSET>(&arg)) break;
	2249	try { GenericConvert( in->LongName, arg, db ); break; }
	2250	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcProject to be a `IfcLabel`")); }
	2251	} while(0);
	2252	do { // convert the 'Phase' argument
	2253	boost::shared_ptr<const DataType> arg = params[base++];
	2254	if (dynamic_cast<const UNSET>(&arg)) break;
	2255	try { GenericConvert( in->Phase, arg, db ); break; }
	2256	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 6 to IfcProject to be a `IfcLabel`")); }
	2257	} while(0);
	2258	do { // convert the 'RepresentationContexts' argument
	2259	boost::shared_ptr<const DataType> arg = params[base++];
	2260	try { GenericConvert( in->RepresentationContexts, arg, db ); break; }
	2261	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 7 to IfcProject to be a `SET [1:?] OF IfcRepresentationContext`")); }
	2262	} while(0);
	2263	do { // convert the 'UnitsInContext' argument
	2264	boost::shared_ptr<const DataType> arg = params[base++];
	2265	try { GenericConvert( in->UnitsInContext, arg, db ); break; }
	2266	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 8 to IfcProject to be a `IfcUnitAssignment`")); }
	2267	} while(0);
	2268	return base;
	2269	}
	2270	// -----------------------------------------------------------------------------------------------------------
	2271	template <> size_t GenericFill<IfcEvaporatorType>(const DB& db, const LIST& params, IfcEvaporatorType* in)
	2272	{
	2273	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	2274	// this data structure is not used yet, so there is no code generated to fill its members
	2275	return base;
	2276	}
	2277	// -----------------------------------------------------------------------------------------------------------
	2278	template <> size_t GenericFill<IfcLaborResource>(const DB& db, const LIST& params, IfcLaborResource* in)
	2279	{
	2280	size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
	2281	// this data structure is not used yet, so there is no code generated to fill its members
	2282	return base;
	2283	}
	2284	// -----------------------------------------------------------------------------------------------------------
	2285	template <> size_t GenericFill<IfcPropertyBoundedValue>(const DB& db, const LIST& params, IfcPropertyBoundedValue* in)
	2286	{
	2287	size_t base = GenericFill(db,params,static_cast<IfcSimpleProperty*>(in));
	2288	// this data structure is not used yet, so there is no code generated to fill its members
	2289	return base;
	2290	}
	2291	// -----------------------------------------------------------------------------------------------------------
	2292	template <> size_t GenericFill<IfcRampFlightType>(const DB& db, const LIST& params, IfcRampFlightType* in)
	2293	{
	2294	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	2295	// this data structure is not used yet, so there is no code generated to fill its members
	2296	return base;
	2297	}
	2298	// -----------------------------------------------------------------------------------------------------------
	2299	template <> size_t GenericFill<IfcMember>(const DB& db, const LIST& params, IfcMember* in)
	2300	{
	2301	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	2302	// this data structure is not used yet, so there is no code generated to fill its members
	2303	return base;
	2304	}
	2305	// -----------------------------------------------------------------------------------------------------------
	2306	template <> size_t GenericFill<IfcTubeBundleType>(const DB& db, const LIST& params, IfcTubeBundleType* in)
	2307	{
	2308	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	2309	// this data structure is not used yet, so there is no code generated to fill its members
	2310	return base;
	2311	}
	2312	// -----------------------------------------------------------------------------------------------------------
	2313	template <> size_t GenericFill<IfcValveType>(const DB& db, const LIST& params, IfcValveType* in)
	2314	{
	2315	size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
	2316	// this data structure is not used yet, so there is no code generated to fill its members
	2317	return base;
	2318	}
	2319	// -----------------------------------------------------------------------------------------------------------
	2320	template <> size_t GenericFill<IfcTrimmedCurve>(const DB& db, const LIST& params, IfcTrimmedCurve* in)
	2321	{
	2322	size_t base = GenericFill(db,params,static_cast<IfcBoundedCurve*>(in));
	2323	if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcTrimmedCurve"); } do { // convert the 'BasisCurve' argument
	2324	boost::shared_ptr<const DataType> arg = params[base++];
	2325	try { GenericConvert( in->BasisCurve, arg, db ); break; }
	2326	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcTrimmedCurve to be a `IfcCurve`")); }
	2327	} while(0);
	2328	do { // convert the 'Trim1' argument
	2329	boost::shared_ptr<const DataType> arg = params[base++];
	2330	try { GenericConvert( in->Trim1, arg, db ); break; }
	2331	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcTrimmedCurve to be a `SET [1:2] OF IfcTrimmingSelect`")); }
	2332	} while(0);
	2333	do { // convert the 'Trim2' argument
	2334	boost::shared_ptr<const DataType> arg = params[base++];
	2335	try { GenericConvert( in->Trim2, arg, db ); break; }
	2336	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcTrimmedCurve to be a `SET [1:2] OF IfcTrimmingSelect`")); }
	2337	} while(0);
	2338	do { // convert the 'SenseAgreement' argument
	2339	boost::shared_ptr<const DataType> arg = params[base++];
	2340	try { GenericConvert( in->SenseAgreement, arg, db ); break; }
	2341	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcTrimmedCurve to be a `BOOLEAN`")); }
	2342	} while(0);
	2343	do { // convert the 'MasterRepresentation' argument
	2344	boost::shared_ptr<const DataType> arg = params[base++];
	2345	try { GenericConvert( in->MasterRepresentation, arg, db ); break; }
	2346	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcTrimmedCurve to be a `IfcTrimmingPreference`")); }
	2347	} while(0);
	2348	return base;
	2349	}
	2350	// -----------------------------------------------------------------------------------------------------------
	2351	template <> size_t GenericFill<IfcRelDefines>(const DB& db, const LIST& params, IfcRelDefines* in)
	2352	{
	2353	size_t base = GenericFill(db,params,static_cast<IfcRelationship*>(in));
	2354	if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcRelDefines"); } do { // convert the 'RelatedObjects' argument
	2355	boost::shared_ptr<const DataType> arg = params[base++];
	2356	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRelDefines,1>::aux_is_derived[0]=true; break; }
	2357	try { GenericConvert( in->RelatedObjects, arg, db ); break; }
	2358	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRelDefines to be a `SET [1:?] OF IfcObject`")); }
	2359	} while(0);
	2360	return base;
	2361	}
	2362	// -----------------------------------------------------------------------------------------------------------
	2363	template <> size_t GenericFill<IfcRelDefinesByProperties>(const DB& db, const LIST& params, IfcRelDefinesByProperties* in)
	2364	{
	2365	size_t base = GenericFill(db,params,static_cast<IfcRelDefines*>(in));
	2366	if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelDefinesByProperties"); } do { // convert the 'RelatingPropertyDefinition' argument
	2367	boost::shared_ptr<const DataType> arg = params[base++];
	2368	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRelDefinesByProperties,1>::aux_is_derived[0]=true; break; }
	2369	try { GenericConvert( in->RelatingPropertyDefinition, arg, db ); break; }
	2370	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcRelDefinesByProperties to be a `IfcPropertySetDefinition`")); }
	2371	} while(0);
	2372	return base;
	2373	}
	2374	// -----------------------------------------------------------------------------------------------------------
	2375	template <> size_t GenericFill<IfcActor>(const DB& db, const LIST& params, IfcActor* in)
	2376	{
	2377	size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
	2378	// this data structure is not used yet, so there is no code generated to fill its members
	2379	return base;
	2380	}
	2381	// -----------------------------------------------------------------------------------------------------------
	2382	template <> size_t GenericFill<IfcOccupant>(const DB& db, const LIST& params, IfcOccupant* in)
	2383	{
	2384	size_t base = GenericFill(db,params,static_cast<IfcActor*>(in));
	2385	// this data structure is not used yet, so there is no code generated to fill its members
	2386	return base;
	2387	}
	2388	// -----------------------------------------------------------------------------------------------------------
	2389	template <> size_t GenericFill<IfcHumidifierType>(const DB& db, const LIST& params, IfcHumidifierType* in)
	2390	{
	2391	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	2392	// this data structure is not used yet, so there is no code generated to fill its members
	2393	return base;
	2394	}
	2395	// -----------------------------------------------------------------------------------------------------------
	2396	template <> size_t GenericFill<IfcArbitraryOpenProfileDef>(const DB& db, const LIST& params, IfcArbitraryOpenProfileDef* in)
	2397	{
	2398	size_t base = GenericFill(db,params,static_cast<IfcProfileDef*>(in));
	2399	if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcArbitraryOpenProfileDef"); } do { // convert the 'Curve' argument
	2400	boost::shared_ptr<const DataType> arg = params[base++];
	2401	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcArbitraryOpenProfileDef,1>::aux_is_derived[0]=true; break; }
	2402	try { GenericConvert( in->Curve, arg, db ); break; }
	2403	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcArbitraryOpenProfileDef to be a `IfcBoundedCurve`")); }
	2404	} while(0);
	2405	return base;
	2406	}
	2407	// -----------------------------------------------------------------------------------------------------------
	2408	template <> size_t GenericFill<IfcPermit>(const DB& db, const LIST& params, IfcPermit* in)
	2409	{
	2410	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	2411	// this data structure is not used yet, so there is no code generated to fill its members
	2412	return base;
	2413	}
	2414	// -----------------------------------------------------------------------------------------------------------
	2415	template <> size_t GenericFill<IfcOffsetCurve3D>(const DB& db, const LIST& params, IfcOffsetCurve3D* in)
	2416	{
	2417	size_t base = GenericFill(db,params,static_cast<IfcCurve*>(in));
	2418	// this data structure is not used yet, so there is no code generated to fill its members
	2419	return base;
	2420	}
	2421	// -----------------------------------------------------------------------------------------------------------
	2422	template <> size_t GenericFill<IfcLightSource>(const DB& db, const LIST& params, IfcLightSource* in)
	2423	{
	2424	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	2425	// this data structure is not used yet, so there is no code generated to fill its members
	2426	return base;
	2427	}
	2428	// -----------------------------------------------------------------------------------------------------------
	2429	template <> size_t GenericFill<IfcLightSourcePositional>(const DB& db, const LIST& params, IfcLightSourcePositional* in)
	2430	{
	2431	size_t base = GenericFill(db,params,static_cast<IfcLightSource*>(in));
	2432	// this data structure is not used yet, so there is no code generated to fill its members
	2433	return base;
	2434	}
	2435	// -----------------------------------------------------------------------------------------------------------
	2436	template <> size_t GenericFill<IfcCompositeProfileDef>(const DB& db, const LIST& params, IfcCompositeProfileDef* in)
	2437	{
	2438	size_t base = GenericFill(db,params,static_cast<IfcProfileDef*>(in));
	2439	// this data structure is not used yet, so there is no code generated to fill its members
	2440	return base;
	2441	}
	2442	// -----------------------------------------------------------------------------------------------------------
	2443	template <> size_t GenericFill<IfcRamp>(const DB& db, const LIST& params, IfcRamp* in)
	2444	{
	2445	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	2446	// this data structure is not used yet, so there is no code generated to fill its members
	2447	return base;
	2448	}
	2449	// -----------------------------------------------------------------------------------------------------------
	2450	template <> size_t GenericFill<IfcFlowMovingDevice>(const DB& db, const LIST& params, IfcFlowMovingDevice* in)
	2451	{
	2452	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
	2453	// this data structure is not used yet, so there is no code generated to fill its members
	2454	return base;
	2455	}
	2456	// -----------------------------------------------------------------------------------------------------------
	2457	template <> size_t GenericFill<IfcSpaceHeaterType>(const DB& db, const LIST& params, IfcSpaceHeaterType* in)
	2458	{
	2459	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	2460	// this data structure is not used yet, so there is no code generated to fill its members
	2461	return base;
	2462	}
	2463	// -----------------------------------------------------------------------------------------------------------
	2464	template <> size_t GenericFill<IfcLampType>(const DB& db, const LIST& params, IfcLampType* in)
	2465	{
	2466	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	2467	// this data structure is not used yet, so there is no code generated to fill its members
	2468	return base;
	2469	}
	2470	// -----------------------------------------------------------------------------------------------------------
	2471	template <> size_t GenericFill<IfcBuildingElementComponent>(const DB& db, const LIST& params, IfcBuildingElementComponent* in)
	2472	{
	2473	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	2474	// this data structure is not used yet, so there is no code generated to fill its members
	2475	return base;
	2476	}
	2477	// -----------------------------------------------------------------------------------------------------------
	2478	template <> size_t GenericFill<IfcReinforcingElement>(const DB& db, const LIST& params, IfcReinforcingElement* in)
	2479	{
	2480	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementComponent*>(in));
	2481	// this data structure is not used yet, so there is no code generated to fill its members
	2482	return base;
	2483	}
	2484	// -----------------------------------------------------------------------------------------------------------
	2485	template <> size_t GenericFill<IfcReinforcingBar>(const DB& db, const LIST& params, IfcReinforcingBar* in)
	2486	{
	2487	size_t base = GenericFill(db,params,static_cast<IfcReinforcingElement*>(in));
	2488	// this data structure is not used yet, so there is no code generated to fill its members
	2489	return base;
	2490	}
	2491	// -----------------------------------------------------------------------------------------------------------
	2492	template <> size_t GenericFill<IfcElectricHeaterType>(const DB& db, const LIST& params, IfcElectricHeaterType* in)
	2493	{
	2494	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	2495	// this data structure is not used yet, so there is no code generated to fill its members
	2496	return base;
	2497	}
	2498	// -----------------------------------------------------------------------------------------------------------
	2499	template <> size_t GenericFill<IfcTShapeProfileDef>(const DB& db, const LIST& params, IfcTShapeProfileDef* in)
	2500	{
	2501	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	2502	// this data structure is not used yet, so there is no code generated to fill its members
	2503	return base;
	2504	}
	2505	// -----------------------------------------------------------------------------------------------------------
	2506	template <> size_t GenericFill<IfcStructuralActivity>(const DB& db, const LIST& params, IfcStructuralActivity* in)
	2507	{
	2508	size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
	2509	// this data structure is not used yet, so there is no code generated to fill its members
	2510	return base;
	2511	}
	2512	// -----------------------------------------------------------------------------------------------------------
	2513	template <> size_t GenericFill<IfcStructuralAction>(const DB& db, const LIST& params, IfcStructuralAction* in)
	2514	{
	2515	size_t base = GenericFill(db,params,static_cast<IfcStructuralActivity*>(in));
	2516	// this data structure is not used yet, so there is no code generated to fill its members
	2517	return base;
	2518	}
	2519	// -----------------------------------------------------------------------------------------------------------
	2520	template <> size_t GenericFill<IfcDuctFittingType>(const DB& db, const LIST& params, IfcDuctFittingType* in)
	2521	{
	2522	size_t base = GenericFill(db,params,static_cast<IfcFlowFittingType*>(in));
	2523	// this data structure is not used yet, so there is no code generated to fill its members
	2524	return base;
	2525	}
	2526	// -----------------------------------------------------------------------------------------------------------
	2527	template <> size_t GenericFill<IfcCartesianTransformationOperator2D>(const DB& db, const LIST& params, IfcCartesianTransformationOperator2D* in)
	2528	{
	2529	size_t base = GenericFill(db,params,static_cast<IfcCartesianTransformationOperator*>(in));
	2530	// this data structure is not used yet, so there is no code generated to fill its members
	2531	return base;
	2532	}
	2533	// -----------------------------------------------------------------------------------------------------------
	2534	template <> size_t GenericFill<IfcCartesianTransformationOperator2DnonUniform>(const DB& db, const LIST& params, IfcCartesianTransformationOperator2DnonUniform* in)
	2535	{
	2536	size_t base = GenericFill(db,params,static_cast<IfcCartesianTransformationOperator2D*>(in));
	2537	// this data structure is not used yet, so there is no code generated to fill its members
	2538	return base;
	2539	}
	2540	// -----------------------------------------------------------------------------------------------------------
	2541	template <> size_t GenericFill<IfcVirtualElement>(const DB& db, const LIST& params, IfcVirtualElement* in)
	2542	{
	2543	size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
	2544	// this data structure is not used yet, so there is no code generated to fill its members
	2545	return base;
	2546	}
	2547	// -----------------------------------------------------------------------------------------------------------
	2548	template <> size_t GenericFill<IfcRightCircularCylinder>(const DB& db, const LIST& params, IfcRightCircularCylinder* in)
	2549	{
	2550	size_t base = GenericFill(db,params,static_cast<IfcCsgPrimitive3D*>(in));
	2551	// this data structure is not used yet, so there is no code generated to fill its members
	2552	return base;
	2553	}
	2554	// -----------------------------------------------------------------------------------------------------------
	2555	template <> size_t GenericFill<IfcOutletType>(const DB& db, const LIST& params, IfcOutletType* in)
	2556	{
	2557	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	2558	// this data structure is not used yet, so there is no code generated to fill its members
	2559	return base;
	2560	}
	2561	// -----------------------------------------------------------------------------------------------------------
	2562	template <> size_t GenericFill<IfcRelDecomposes>(const DB& db, const LIST& params, IfcRelDecomposes* in)
	2563	{
	2564	size_t base = GenericFill(db,params,static_cast<IfcRelationship*>(in));
	2565	if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelDecomposes"); } do { // convert the 'RelatingObject' argument
	2566	boost::shared_ptr<const DataType> arg = params[base++];
	2567	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRelDecomposes,2>::aux_is_derived[0]=true; break; }
	2568	try { GenericConvert( in->RelatingObject, arg, db ); break; }
	2569	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRelDecomposes to be a `IfcObjectDefinition`")); }
	2570	} while(0);
	2571	do { // convert the 'RelatedObjects' argument
	2572	boost::shared_ptr<const DataType> arg = params[base++];
	2573	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRelDecomposes,2>::aux_is_derived[1]=true; break; }
	2574	try { GenericConvert( in->RelatedObjects, arg, db ); break; }
	2575	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcRelDecomposes to be a `SET [1:?] OF IfcObjectDefinition`")); }
	2576	} while(0);
	2577	return base;
	2578	}
	2579	// -----------------------------------------------------------------------------------------------------------
	2580	template <> size_t GenericFill<IfcCovering>(const DB& db, const LIST& params, IfcCovering* in)
	2581	{
	2582	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	2583	// this data structure is not used yet, so there is no code generated to fill its members
	2584	return base;
	2585	}
	2586	// -----------------------------------------------------------------------------------------------------------
	2587	template <> size_t GenericFill<IfcPolyline>(const DB& db, const LIST& params, IfcPolyline* in)
	2588	{
	2589	size_t base = GenericFill(db,params,static_cast<IfcBoundedCurve*>(in));
	2590	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPolyline"); } do { // convert the 'Points' argument
	2591	boost::shared_ptr<const DataType> arg = params[base++];
	2592	try { GenericConvert( in->Points, arg, db ); break; }
	2593	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcPolyline to be a `LIST [2:?] OF IfcCartesianPoint`")); }
	2594	} while(0);
	2595	return base;
	2596	}
	2597	// -----------------------------------------------------------------------------------------------------------
	2598	template <> size_t GenericFill<IfcPath>(const DB& db, const LIST& params, IfcPath* in)
	2599	{
	2600	size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
	2601	// this data structure is not used yet, so there is no code generated to fill its members
	2602	return base;
	2603	}
	2604	// -----------------------------------------------------------------------------------------------------------
	2605	template <> size_t GenericFill<IfcElementComponent>(const DB& db, const LIST& params, IfcElementComponent* in)
	2606	{
	2607	size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
	2608	// this data structure is not used yet, so there is no code generated to fill its members
	2609	return base;
	2610	}
	2611	// -----------------------------------------------------------------------------------------------------------
	2612	template <> size_t GenericFill<IfcFastener>(const DB& db, const LIST& params, IfcFastener* in)
	2613	{
	2614	size_t base = GenericFill(db,params,static_cast<IfcElementComponent*>(in));
	2615	// this data structure is not used yet, so there is no code generated to fill its members
	2616	return base;
	2617	}
	2618	// -----------------------------------------------------------------------------------------------------------
	2619	template <> size_t GenericFill<IfcMappedItem>(const DB& db, const LIST& params, IfcMappedItem* in)
	2620	{
	2621	size_t base = GenericFill(db,params,static_cast<IfcRepresentationItem*>(in));
	2622	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcMappedItem"); } do { // convert the 'MappingSource' argument
	2623	boost::shared_ptr<const DataType> arg = params[base++];
	2624	try { GenericConvert( in->MappingSource, arg, db ); break; }
	2625	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcMappedItem to be a `IfcRepresentationMap`")); }
	2626	} while(0);
	2627	do { // convert the 'MappingTarget' argument
	2628	boost::shared_ptr<const DataType> arg = params[base++];
	2629	try { GenericConvert( in->MappingTarget, arg, db ); break; }
	2630	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcMappedItem to be a `IfcCartesianTransformationOperator`")); }
	2631	} while(0);
	2632	return base;
	2633	}
	2634	// -----------------------------------------------------------------------------------------------------------
	2635	template <> size_t GenericFill<IfcRectangularPyramid>(const DB& db, const LIST& params, IfcRectangularPyramid* in)
	2636	{
	2637	size_t base = GenericFill(db,params,static_cast<IfcCsgPrimitive3D*>(in));
	2638	// this data structure is not used yet, so there is no code generated to fill its members
	2639	return base;
	2640	}
	2641	// -----------------------------------------------------------------------------------------------------------
	2642	template <> size_t GenericFill<IfcCrewResource>(const DB& db, const LIST& params, IfcCrewResource* in)
	2643	{
	2644	size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
	2645	// this data structure is not used yet, so there is no code generated to fill its members
	2646	return base;
	2647	}
	2648	// -----------------------------------------------------------------------------------------------------------
	2649	template <> size_t GenericFill<IfcNamedUnit>(const DB& db, const LIST& params, IfcNamedUnit* in)
	2650	{
	2651	size_t base = 0;
	2652	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcNamedUnit"); } do { // convert the 'Dimensions' argument
	2653	boost::shared_ptr<const DataType> arg = params[base++];
	2654	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcNamedUnit,2>::aux_is_derived[0]=true; break; }
	2655	try { GenericConvert( in->Dimensions, arg, db ); break; }
	2656	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcNamedUnit to be a `IfcDimensionalExponents`")); }
	2657	} while(0);
	2658	do { // convert the 'UnitType' argument
	2659	boost::shared_ptr<const DataType> arg = params[base++];
	2660	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcNamedUnit,2>::aux_is_derived[1]=true; break; }
	2661	try { GenericConvert( in->UnitType, arg, db ); break; }
	2662	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcNamedUnit to be a `IfcUnitEnum`")); }
	2663	} while(0);
	2664	return base;
	2665	}
	2666	// -----------------------------------------------------------------------------------------------------------
	2667	template <> size_t GenericFill<IfcContextDependentUnit>(const DB& db, const LIST& params, IfcContextDependentUnit* in)
	2668	{
	2669	size_t base = GenericFill(db,params,static_cast<IfcNamedUnit*>(in));
	2670	// this data structure is not used yet, so there is no code generated to fill its members
	2671	return base;
	2672	}
	2673	// -----------------------------------------------------------------------------------------------------------
	2674	template <> size_t GenericFill<IfcUnitaryEquipmentType>(const DB& db, const LIST& params, IfcUnitaryEquipmentType* in)
	2675	{
	2676	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	2677	// this data structure is not used yet, so there is no code generated to fill its members
	2678	return base;
	2679	}
	2680	// -----------------------------------------------------------------------------------------------------------
	2681	template <> size_t GenericFill<IfcRoof>(const DB& db, const LIST& params, IfcRoof* in)
	2682	{
	2683	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	2684	// this data structure is not used yet, so there is no code generated to fill its members
	2685	return base;
	2686	}
	2687	// -----------------------------------------------------------------------------------------------------------
	2688	template <> size_t GenericFill<IfcStructuralMember>(const DB& db, const LIST& params, IfcStructuralMember* in)
	2689	{
	2690	size_t base = GenericFill(db,params,static_cast<IfcStructuralItem*>(in));
	2691	// this data structure is not used yet, so there is no code generated to fill its members
	2692	return base;
	2693	}
	2694	// -----------------------------------------------------------------------------------------------------------
	2695	template <> size_t GenericFill<IfcStyleModel>(const DB& db, const LIST& params, IfcStyleModel* in)
	2696	{
	2697	size_t base = GenericFill(db,params,static_cast<IfcRepresentation*>(in));
	2698	// this data structure is not used yet, so there is no code generated to fill its members
	2699	return base;
	2700	}
	2701	// -----------------------------------------------------------------------------------------------------------
	2702	template <> size_t GenericFill<IfcStyledRepresentation>(const DB& db, const LIST& params, IfcStyledRepresentation* in)
	2703	{
	2704	size_t base = GenericFill(db,params,static_cast<IfcStyleModel*>(in));
	2705	// this data structure is not used yet, so there is no code generated to fill its members
	2706	return base;
	2707	}
	2708	// -----------------------------------------------------------------------------------------------------------
	2709	template <> size_t GenericFill<IfcSpatialStructureElement>(const DB& db, const LIST& params, IfcSpatialStructureElement* in)
	2710	{
	2711	size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
	2712	if (params.GetSize() < 9) { throw STEP::TypeError("expected 9 arguments to IfcSpatialStructureElement"); } do { // convert the 'LongName' argument
	2713	boost::shared_ptr<const DataType> arg = params[base++];
	2714	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcSpatialStructureElement,2>::aux_is_derived[0]=true; break; }
	2715	if (dynamic_cast<const UNSET>(&arg)) break;
	2716	try { GenericConvert( in->LongName, arg, db ); break; }
	2717	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 7 to IfcSpatialStructureElement to be a `IfcLabel`")); }
	2718	} while(0);
	2719	do { // convert the 'CompositionType' argument
	2720	boost::shared_ptr<const DataType> arg = params[base++];
	2721	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcSpatialStructureElement,2>::aux_is_derived[1]=true; break; }
	2722	try { GenericConvert( in->CompositionType, arg, db ); break; }
	2723	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 8 to IfcSpatialStructureElement to be a `IfcElementCompositionEnum`")); }
	2724	} while(0);
	2725	return base;
	2726	}
	2727	// -----------------------------------------------------------------------------------------------------------
	2728	template <> size_t GenericFill<IfcBuilding>(const DB& db, const LIST& params, IfcBuilding* in)
	2729	{
	2730	size_t base = GenericFill(db,params,static_cast<IfcSpatialStructureElement*>(in));
	2731	if (params.GetSize() < 12) { throw STEP::TypeError("expected 12 arguments to IfcBuilding"); } do { // convert the 'ElevationOfRefHeight' argument
	2732	boost::shared_ptr<const DataType> arg = params[base++];
	2733	if (dynamic_cast<const UNSET>(&arg)) break;
	2734	try { GenericConvert( in->ElevationOfRefHeight, arg, db ); break; }
	2735	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 9 to IfcBuilding to be a `IfcLengthMeasure`")); }
	2736	} while(0);
	2737	do { // convert the 'ElevationOfTerrain' argument
	2738	boost::shared_ptr<const DataType> arg = params[base++];
	2739	if (dynamic_cast<const UNSET>(&arg)) break;
	2740	try { GenericConvert( in->ElevationOfTerrain, arg, db ); break; }
	2741	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 10 to IfcBuilding to be a `IfcLengthMeasure`")); }
	2742	} while(0);
	2743	do { // convert the 'BuildingAddress' argument
	2744	boost::shared_ptr<const DataType> arg = params[base++];
	2745	if (dynamic_cast<const UNSET>(&arg)) break;
	2746	try { GenericConvert( in->BuildingAddress, arg, db ); break; }
	2747	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 11 to IfcBuilding to be a `IfcPostalAddress`")); }
	2748	} while(0);
	2749	return base;
	2750	}
	2751	// -----------------------------------------------------------------------------------------------------------
	2752	template <> size_t GenericFill<IfcConnectedFaceSet>(const DB& db, const LIST& params, IfcConnectedFaceSet* in)
	2753	{
	2754	size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
	2755	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcConnectedFaceSet"); } do { // convert the 'CfsFaces' argument
	2756	boost::shared_ptr<const DataType> arg = params[base++];
	2757	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcConnectedFaceSet,1>::aux_is_derived[0]=true; break; }
	2758	try { GenericConvert( in->CfsFaces, arg, db ); break; }
	2759	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcConnectedFaceSet to be a `SET [1:?] OF IfcFace`")); }
	2760	} while(0);
	2761	return base;
	2762	}
	2763	// -----------------------------------------------------------------------------------------------------------
	2764	template <> size_t GenericFill<IfcOpenShell>(const DB& db, const LIST& params, IfcOpenShell* in)
	2765	{
	2766	size_t base = GenericFill(db,params,static_cast<IfcConnectedFaceSet*>(in));
	2767	// this data structure is not used yet, so there is no code generated to fill its members
	2768	return base;
	2769	}
	2770	// -----------------------------------------------------------------------------------------------------------
	2771	template <> size_t GenericFill<IfcFacetedBrep>(const DB& db, const LIST& params, IfcFacetedBrep* in)
	2772	{
	2773	size_t base = GenericFill(db,params,static_cast<IfcManifoldSolidBrep*>(in));
	2774	// this data structure is not used yet, so there is no code generated to fill its members
	2775	return base;
	2776	}
	2777	// -----------------------------------------------------------------------------------------------------------
	2778	template <> size_t GenericFill<IfcConic>(const DB& db, const LIST& params, IfcConic* in)
	2779	{
	2780	size_t base = GenericFill(db,params,static_cast<IfcCurve*>(in));
	2781	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcConic"); } do { // convert the 'Position' argument
	2782	boost::shared_ptr<const DataType> arg = params[base++];
	2783	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcConic,1>::aux_is_derived[0]=true; break; }
	2784	try { GenericConvert( in->Position, arg, db ); break; }
	2785	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcConic to be a `IfcAxis2Placement`")); }
	2786	} while(0);
	2787	return base;
	2788	}
	2789	// -----------------------------------------------------------------------------------------------------------
	2790	template <> size_t GenericFill<IfcCoveringType>(const DB& db, const LIST& params, IfcCoveringType* in)
	2791	{
	2792	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	2793	// this data structure is not used yet, so there is no code generated to fill its members
	2794	return base;
	2795	}
	2796	// -----------------------------------------------------------------------------------------------------------
	2797	template <> size_t GenericFill<IfcRoundedRectangleProfileDef>(const DB& db, const LIST& params, IfcRoundedRectangleProfileDef* in)
	2798	{
	2799	size_t base = GenericFill(db,params,static_cast<IfcRectangleProfileDef*>(in));
	2800	// this data structure is not used yet, so there is no code generated to fill its members
	2801	return base;
	2802	}
	2803	// -----------------------------------------------------------------------------------------------------------
	2804	template <> size_t GenericFill<IfcAirTerminalType>(const DB& db, const LIST& params, IfcAirTerminalType* in)
	2805	{
	2806	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	2807	// this data structure is not used yet, so there is no code generated to fill its members
	2808	return base;
	2809	}
	2810	// -----------------------------------------------------------------------------------------------------------
	2811	template <> size_t GenericFill<IfcFlowMovingDeviceType>(const DB& db, const LIST& params, IfcFlowMovingDeviceType* in)
1352	2812	{
1353	2813	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
1354	2814	// this data structure is not used yet, so there is no code generated to fill its members
1355	2815	return base;
1356	2816	}
1357	2817	// -----------------------------------------------------------------------------------------------------------
1358		template <> size_t GenericFill<IfcPipeFittingType>(const DB& db, const LIST& params, IfcPipeFittingType* in)
1359		{
1360		size_t base = GenericFill(db,params,static_cast<IfcFlowFittingType*>(in));
1361		// this data structure is not used yet, so there is no code generated to fill its members
1362		return base;
1363		}
1364		// -----------------------------------------------------------------------------------------------------------
1365		template <> size_t GenericFill<IfcRepresentation>(const DB& db, const LIST& params, IfcRepresentation* in)
1366		{
1367		size_t base = 0;
1368		if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcRepresentation"); } do { // convert the 'ContextOfItems' argument
1369		boost::shared_ptr<const DataType> arg = params[base++];
1370		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentation,4>::aux_is_derived[0]=true; break; }
1371		try { GenericConvert( in->ContextOfItems, arg, db ); break; }
1372		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcRepresentation to be a `IfcRepresentationContext`")); }
1373		} while(0);
1374		do { // convert the 'RepresentationIdentifier' argument
1375		boost::shared_ptr<const DataType> arg = params[base++];
1376		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentation,4>::aux_is_derived[1]=true; break; }
1377		if (dynamic_cast<const UNSET>(&arg)) break;
1378		try { GenericConvert( in->RepresentationIdentifier, arg, db ); break; }
1379		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcRepresentation to be a `IfcLabel`")); }
1380		} while(0);
1381		do { // convert the 'RepresentationType' argument
1382		boost::shared_ptr<const DataType> arg = params[base++];
1383		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentation,4>::aux_is_derived[2]=true; break; }
1384		if (dynamic_cast<const UNSET>(&arg)) break;
1385		try { GenericConvert( in->RepresentationType, arg, db ); break; }
1386		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcRepresentation to be a `IfcLabel`")); }
1387		} while(0);
1388		do { // convert the 'Items' argument
1389		boost::shared_ptr<const DataType> arg = params[base++];
1390		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentation,4>::aux_is_derived[3]=true; break; }
1391		try { GenericConvert( in->Items, arg, db ); break; }
1392		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcRepresentation to be a `SET [1:?] OF IfcRepresentationItem`")); }
1393		} while(0);
1394		return base;
1395		}
1396		// -----------------------------------------------------------------------------------------------------------
1397		template <> size_t GenericFill<IfcStyleModel>(const DB& db, const LIST& params, IfcStyleModel* in)
1398		{
1399		size_t base = GenericFill(db,params,static_cast<IfcRepresentation*>(in));
1400		// this data structure is not used yet, so there is no code generated to fill its members
1401		return base;
1402		}
1403		// -----------------------------------------------------------------------------------------------------------
1404		template <> size_t GenericFill<IfcStyledRepresentation>(const DB& db, const LIST& params, IfcStyledRepresentation* in)
1405		{
1406		size_t base = GenericFill(db,params,static_cast<IfcStyleModel*>(in));
1407		// this data structure is not used yet, so there is no code generated to fill its members
1408		return base;
1409		}
1410		// -----------------------------------------------------------------------------------------------------------
1411		template <> size_t GenericFill<IfcBooleanResult>(const DB& db, const LIST& params, IfcBooleanResult* in)
1412		{
1413		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
1414		if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcBooleanResult"); } do { // convert the 'Operator' argument
1415		boost::shared_ptr<const DataType> arg = params[base++];
1416		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBooleanResult,3>::aux_is_derived[0]=true; break; }
1417		try { GenericConvert( in->Operator, arg, db ); break; }
1418		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcBooleanResult to be a `IfcBooleanOperator`")); }
1419		} while(0);
1420		do { // convert the 'FirstOperand' argument
1421		boost::shared_ptr<const DataType> arg = params[base++];
1422		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBooleanResult,3>::aux_is_derived[1]=true; break; }
1423		try { GenericConvert( in->FirstOperand, arg, db ); break; }
1424		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcBooleanResult to be a `IfcBooleanOperand`")); }
1425		} while(0);
1426		do { // convert the 'SecondOperand' argument
1427		boost::shared_ptr<const DataType> arg = params[base++];
1428		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBooleanResult,3>::aux_is_derived[2]=true; break; }
1429		try { GenericConvert( in->SecondOperand, arg, db ); break; }
1430		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcBooleanResult to be a `IfcBooleanOperand`")); }
1431		} while(0);
1432		return base;
1433		}
1434		// -----------------------------------------------------------------------------------------------------------
1435		template <> size_t GenericFill<IfcFeatureElement>(const DB& db, const LIST& params, IfcFeatureElement* in)
1436		{
1437		size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
1438		if (params.GetSize() < 8) { throw STEP::TypeError("expected 8 arguments to IfcFeatureElement"); } return base;
1439		}
1440		// -----------------------------------------------------------------------------------------------------------
1441		template <> size_t GenericFill<IfcFeatureElementSubtraction>(const DB& db, const LIST& params, IfcFeatureElementSubtraction* in)
1442		{
1443		size_t base = GenericFill(db,params,static_cast<IfcFeatureElement*>(in));
1444		if (params.GetSize() < 8) { throw STEP::TypeError("expected 8 arguments to IfcFeatureElementSubtraction"); } return base;
1445		}
1446		// -----------------------------------------------------------------------------------------------------------
1447		template <> size_t GenericFill<IfcOpeningElement>(const DB& db, const LIST& params, IfcOpeningElement* in)
1448		{
1449		size_t base = GenericFill(db,params,static_cast<IfcFeatureElementSubtraction*>(in));
1450		if (params.GetSize() < 8) { throw STEP::TypeError("expected 8 arguments to IfcOpeningElement"); } return base;
1451		}
1452		// -----------------------------------------------------------------------------------------------------------
1453		template <> size_t GenericFill<IfcConditionCriterion>(const DB& db, const LIST& params, IfcConditionCriterion* in)
	2818	template <> size_t GenericFill<IfcCompressorType>(const DB& db, const LIST& params, IfcCompressorType* in)
	2819	{
	2820	size_t base = GenericFill(db,params,static_cast<IfcFlowMovingDeviceType*>(in));
	2821	// this data structure is not used yet, so there is no code generated to fill its members
	2822	return base;
	2823	}
	2824	// -----------------------------------------------------------------------------------------------------------
	2825	template <> size_t GenericFill<IfcIShapeProfileDef>(const DB& db, const LIST& params, IfcIShapeProfileDef* in)
	2826	{
	2827	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	2828	if (params.GetSize() < 8) { throw STEP::TypeError("expected 8 arguments to IfcIShapeProfileDef"); } do { // convert the 'OverallWidth' argument
	2829	boost::shared_ptr<const DataType> arg = params[base++];
	2830	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcIShapeProfileDef,5>::aux_is_derived[0]=true; break; }
	2831	try { GenericConvert( in->OverallWidth, arg, db ); break; }
	2832	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcIShapeProfileDef to be a `IfcPositiveLengthMeasure`")); }
	2833	} while(0);
	2834	do { // convert the 'OverallDepth' argument
	2835	boost::shared_ptr<const DataType> arg = params[base++];
	2836	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcIShapeProfileDef,5>::aux_is_derived[1]=true; break; }
	2837	try { GenericConvert( in->OverallDepth, arg, db ); break; }
	2838	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcIShapeProfileDef to be a `IfcPositiveLengthMeasure`")); }
	2839	} while(0);
	2840	do { // convert the 'WebThickness' argument
	2841	boost::shared_ptr<const DataType> arg = params[base++];
	2842	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcIShapeProfileDef,5>::aux_is_derived[2]=true; break; }
	2843	try { GenericConvert( in->WebThickness, arg, db ); break; }
	2844	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcIShapeProfileDef to be a `IfcPositiveLengthMeasure`")); }
	2845	} while(0);
	2846	do { // convert the 'FlangeThickness' argument
	2847	boost::shared_ptr<const DataType> arg = params[base++];
	2848	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcIShapeProfileDef,5>::aux_is_derived[3]=true; break; }
	2849	try { GenericConvert( in->FlangeThickness, arg, db ); break; }
	2850	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 6 to IfcIShapeProfileDef to be a `IfcPositiveLengthMeasure`")); }
	2851	} while(0);
	2852	do { // convert the 'FilletRadius' argument
	2853	boost::shared_ptr<const DataType> arg = params[base++];
	2854	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcIShapeProfileDef,5>::aux_is_derived[4]=true; break; }
	2855	if (dynamic_cast<const UNSET>(&arg)) break;
	2856	try { GenericConvert( in->FilletRadius, arg, db ); break; }
	2857	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 7 to IfcIShapeProfileDef to be a `IfcPositiveLengthMeasure`")); }
	2858	} while(0);
	2859	return base;
	2860	}
	2861	// -----------------------------------------------------------------------------------------------------------
	2862	template <> size_t GenericFill<IfcAsymmetricIShapeProfileDef>(const DB& db, const LIST& params, IfcAsymmetricIShapeProfileDef* in)
	2863	{
	2864	size_t base = GenericFill(db,params,static_cast<IfcIShapeProfileDef*>(in));
	2865	// this data structure is not used yet, so there is no code generated to fill its members
	2866	return base;
	2867	}
	2868	// -----------------------------------------------------------------------------------------------------------
	2869	template <> size_t GenericFill<IfcControllerType>(const DB& db, const LIST& params, IfcControllerType* in)
	2870	{
	2871	size_t base = GenericFill(db,params,static_cast<IfcDistributionControlElementType*>(in));
	2872	// this data structure is not used yet, so there is no code generated to fill its members
	2873	return base;
	2874	}
	2875	// -----------------------------------------------------------------------------------------------------------
	2876	template <> size_t GenericFill<IfcRailing>(const DB& db, const LIST& params, IfcRailing* in)
	2877	{
	2878	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	2879	// this data structure is not used yet, so there is no code generated to fill its members
	2880	return base;
	2881	}
	2882	// -----------------------------------------------------------------------------------------------------------
	2883	template <> size_t GenericFill<IfcGroup>(const DB& db, const LIST& params, IfcGroup* in)
	2884	{
	2885	size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
	2886	// this data structure is not used yet, so there is no code generated to fill its members
	2887	return base;
	2888	}
	2889	// -----------------------------------------------------------------------------------------------------------
	2890	template <> size_t GenericFill<IfcAsset>(const DB& db, const LIST& params, IfcAsset* in)
	2891	{
	2892	size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
	2893	// this data structure is not used yet, so there is no code generated to fill its members
	2894	return base;
	2895	}
	2896	// -----------------------------------------------------------------------------------------------------------
	2897	template <> size_t GenericFill<IfcMaterialDefinitionRepresentation>(const DB& db, const LIST& params, IfcMaterialDefinitionRepresentation* in)
	2898	{
	2899	size_t base = GenericFill(db,params,static_cast<IfcProductRepresentation*>(in));
	2900	// this data structure is not used yet, so there is no code generated to fill its members
	2901	return base;
	2902	}
	2903	// -----------------------------------------------------------------------------------------------------------
	2904	template <> size_t GenericFill<IfcRailingType>(const DB& db, const LIST& params, IfcRailingType* in)
	2905	{
	2906	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	2907	// this data structure is not used yet, so there is no code generated to fill its members
	2908	return base;
	2909	}
	2910	// -----------------------------------------------------------------------------------------------------------
	2911	template <> size_t GenericFill<IfcWall>(const DB& db, const LIST& params, IfcWall* in)
	2912	{
	2913	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	2914	// this data structure is not used yet, so there is no code generated to fill its members
	2915	return base;
	2916	}
	2917	// -----------------------------------------------------------------------------------------------------------
	2918	template <> size_t GenericFill<IfcStructuralPointConnection>(const DB& db, const LIST& params, IfcStructuralPointConnection* in)
	2919	{
	2920	size_t base = GenericFill(db,params,static_cast<IfcStructuralConnection*>(in));
	2921	// this data structure is not used yet, so there is no code generated to fill its members
	2922	return base;
	2923	}
	2924	// -----------------------------------------------------------------------------------------------------------
	2925	template <> size_t GenericFill<IfcPropertyListValue>(const DB& db, const LIST& params, IfcPropertyListValue* in)
	2926	{
	2927	size_t base = GenericFill(db,params,static_cast<IfcSimpleProperty*>(in));
	2928	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcPropertyListValue"); } do { // convert the 'ListValues' argument
	2929	boost::shared_ptr<const DataType> arg = params[base++];
	2930	try { GenericConvert( in->ListValues, arg, db ); break; }
	2931	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcPropertyListValue to be a `LIST [1:?] OF IfcValue`")); }
	2932	} while(0);
	2933	do { // convert the 'Unit' argument
	2934	boost::shared_ptr<const DataType> arg = params[base++];
	2935	if (dynamic_cast<const UNSET>(&arg)) break;
	2936	try { GenericConvert( in->Unit, arg, db ); break; }
	2937	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcPropertyListValue to be a `IfcUnit`")); }
	2938	} while(0);
	2939	return base;
	2940	}
	2941	// -----------------------------------------------------------------------------------------------------------
	2942	template <> size_t GenericFill<IfcFurnitureStandard>(const DB& db, const LIST& params, IfcFurnitureStandard* in)
1454	2943	{
1455	2944	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
1456	2945	// this data structure is not used yet, so there is no code generated to fill its members
1457	2946	return base;
1458	2947	}
1459	2948	// -----------------------------------------------------------------------------------------------------------
1460		template <> size_t GenericFill<IfcFlowTerminalType>(const DB& db, const LIST& params, IfcFlowTerminalType* in)
1461		{
1462		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
1463		// this data structure is not used yet, so there is no code generated to fill its members
1464		return base;
1465		}
1466		// -----------------------------------------------------------------------------------------------------------
1467		template <> size_t GenericFill<IfcFlowControllerType>(const DB& db, const LIST& params, IfcFlowControllerType* in)
1468		{
1469		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
1470		// this data structure is not used yet, so there is no code generated to fill its members
1471		return base;
1472		}
1473		// -----------------------------------------------------------------------------------------------------------
1474		template <> size_t GenericFill<IfcSwitchingDeviceType>(const DB& db, const LIST& params, IfcSwitchingDeviceType* in)
1475		{
1476		size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
1477		// this data structure is not used yet, so there is no code generated to fill its members
1478		return base;
1479		}
1480		// -----------------------------------------------------------------------------------------------------------
1481		template <> size_t GenericFill<IfcSystem>(const DB& db, const LIST& params, IfcSystem* in)
1482		{
1483		size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
1484		// this data structure is not used yet, so there is no code generated to fill its members
1485		return base;
1486		}
1487		// -----------------------------------------------------------------------------------------------------------
1488		template <> size_t GenericFill<IfcElectricalCircuit>(const DB& db, const LIST& params, IfcElectricalCircuit* in)
1489		{
1490		size_t base = GenericFill(db,params,static_cast<IfcSystem*>(in));
1491		// this data structure is not used yet, so there is no code generated to fill its members
1492		return base;
1493		}
1494		// -----------------------------------------------------------------------------------------------------------
1495		template <> size_t GenericFill<IfcUnitaryEquipmentType>(const DB& db, const LIST& params, IfcUnitaryEquipmentType* in)
	2949	template <> size_t GenericFill<IfcElectricGeneratorType>(const DB& db, const LIST& params, IfcElectricGeneratorType* in)
1496	2950	{
1497	2951	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
1498	2952	// this data structure is not used yet, so there is no code generated to fill its members
1499	2953	return base;
1500	2954	}
1501	2955	// -----------------------------------------------------------------------------------------------------------
1502		template <> size_t GenericFill<IfcPort>(const DB& db, const LIST& params, IfcPort* in)
1503		{
1504		size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
1505		// this data structure is not used yet, so there is no code generated to fill its members
1506		return base;
1507		}
1508		// -----------------------------------------------------------------------------------------------------------
1509		template <> size_t GenericFill<IfcPlacement>(const DB& db, const LIST& params, IfcPlacement* in)
1510		{
1511		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
1512		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPlacement"); } do { // convert the 'Location' argument
1513		boost::shared_ptr<const DataType> arg = params[base++];
1514		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcPlacement,1>::aux_is_derived[0]=true; break; }
1515		try { GenericConvert( in->Location, arg, db ); break; }
1516		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcPlacement to be a `IfcCartesianPoint`")); }
1517		} while(0);
1518		return base;
1519		}
1520		// -----------------------------------------------------------------------------------------------------------
1521		template <> size_t GenericFill<IfcProfileDef>(const DB& db, const LIST& params, IfcProfileDef* in)
1522		{
1523		size_t base = 0;
1524		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcProfileDef"); } do { // convert the 'ProfileType' argument
1525		boost::shared_ptr<const DataType> arg = params[base++];
1526		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProfileDef,2>::aux_is_derived[0]=true; break; }
1527		try { GenericConvert( in->ProfileType, arg, db ); break; }
1528		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcProfileDef to be a `IfcProfileTypeEnum`")); }
1529		} while(0);
1530		do { // convert the 'ProfileName' argument
1531		boost::shared_ptr<const DataType> arg = params[base++];
1532		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProfileDef,2>::aux_is_derived[1]=true; break; }
1533		if (dynamic_cast<const UNSET>(&arg)) break;
1534		try { GenericConvert( in->ProfileName, arg, db ); break; }
1535		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcProfileDef to be a `IfcLabel`")); }
1536		} while(0);
	2956	template <> size_t GenericFill<IfcDoor>(const DB& db, const LIST& params, IfcDoor* in)
	2957	{
	2958	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	2959	if (params.GetSize() < 10) { throw STEP::TypeError("expected 10 arguments to IfcDoor"); } do { // convert the 'OverallHeight' argument
	2960	boost::shared_ptr<const DataType> arg = params[base++];
	2961	if (dynamic_cast<const UNSET>(&arg)) break;
	2962	try { GenericConvert( in->OverallHeight, arg, db ); break; }
	2963	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 8 to IfcDoor to be a `IfcPositiveLengthMeasure`")); }
	2964	} while(0);
	2965	do { // convert the 'OverallWidth' argument
	2966	boost::shared_ptr<const DataType> arg = params[base++];
	2967	if (dynamic_cast<const UNSET>(&arg)) break;
	2968	try { GenericConvert( in->OverallWidth, arg, db ); break; }
	2969	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 9 to IfcDoor to be a `IfcPositiveLengthMeasure`")); }
	2970	} while(0);
	2971	return base;
	2972	}
	2973	// -----------------------------------------------------------------------------------------------------------
	2974	template <> size_t GenericFill<IfcStyledItem>(const DB& db, const LIST& params, IfcStyledItem* in)
	2975	{
	2976	size_t base = GenericFill(db,params,static_cast<IfcRepresentationItem*>(in));
	2977	if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcStyledItem"); } do { // convert the 'Item' argument
	2978	boost::shared_ptr<const DataType> arg = params[base++];
	2979	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcStyledItem,3>::aux_is_derived[0]=true; break; }
	2980	if (dynamic_cast<const UNSET>(&arg)) break;
	2981	try { GenericConvert( in->Item, arg, db ); break; }
	2982	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcStyledItem to be a `IfcRepresentationItem`")); }
	2983	} while(0);
	2984	do { // convert the 'Styles' argument
	2985	boost::shared_ptr<const DataType> arg = params[base++];
	2986	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcStyledItem,3>::aux_is_derived[1]=true; break; }
	2987	try { GenericConvert( in->Styles, arg, db ); break; }
	2988	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcStyledItem to be a `SET [1:?] OF IfcPresentationStyleAssignment`")); }
	2989	} while(0);
	2990	do { // convert the 'Name' argument
	2991	boost::shared_ptr<const DataType> arg = params[base++];
	2992	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcStyledItem,3>::aux_is_derived[2]=true; break; }
	2993	if (dynamic_cast<const UNSET>(&arg)) break;
	2994	try { GenericConvert( in->Name, arg, db ); break; }
	2995	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcStyledItem to be a `IfcLabel`")); }
	2996	} while(0);
	2997	return base;
	2998	}
	2999	// -----------------------------------------------------------------------------------------------------------
	3000	template <> size_t GenericFill<IfcAnnotationOccurrence>(const DB& db, const LIST& params, IfcAnnotationOccurrence* in)
	3001	{
	3002	size_t base = GenericFill(db,params,static_cast<IfcStyledItem*>(in));
	3003	// this data structure is not used yet, so there is no code generated to fill its members
	3004	return base;
	3005	}
	3006	// -----------------------------------------------------------------------------------------------------------
	3007	template <> size_t GenericFill<IfcAnnotationSymbolOccurrence>(const DB& db, const LIST& params, IfcAnnotationSymbolOccurrence* in)
	3008	{
	3009	size_t base = GenericFill(db,params,static_cast<IfcAnnotationOccurrence*>(in));
	3010	// this data structure is not used yet, so there is no code generated to fill its members
1537	3011	return base;
1538	3012	}
1539	3013	// -----------------------------------------------------------------------------------------------------------

1549	3023	return base;
1550	3024	}
1551	3025	// -----------------------------------------------------------------------------------------------------------
1552		template <> size_t GenericFill<IfcCurve>(const DB& db, const LIST& params, IfcCurve* in)
	3026	template <> size_t GenericFill<IfcArbitraryProfileDefWithVoids>(const DB& db, const LIST& params, IfcArbitraryProfileDefWithVoids* in)
	3027	{
	3028	size_t base = GenericFill(db,params,static_cast<IfcArbitraryClosedProfileDef*>(in));
	3029	// this data structure is not used yet, so there is no code generated to fill its members
	3030	return base;
	3031	}
	3032	// -----------------------------------------------------------------------------------------------------------
	3033	template <> size_t GenericFill<IfcLine>(const DB& db, const LIST& params, IfcLine* in)
	3034	{
	3035	size_t base = GenericFill(db,params,static_cast<IfcCurve*>(in));
	3036	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcLine"); } do { // convert the 'Pnt' argument
	3037	boost::shared_ptr<const DataType> arg = params[base++];
	3038	try { GenericConvert( in->Pnt, arg, db ); break; }
	3039	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcLine to be a `IfcCartesianPoint`")); }
	3040	} while(0);
	3041	do { // convert the 'Dir' argument
	3042	boost::shared_ptr<const DataType> arg = params[base++];
	3043	try { GenericConvert( in->Dir, arg, db ); break; }
	3044	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcLine to be a `IfcVector`")); }
	3045	} while(0);
	3046	return base;
	3047	}
	3048	// -----------------------------------------------------------------------------------------------------------
	3049	template <> size_t GenericFill<IfcFlowSegmentType>(const DB& db, const LIST& params, IfcFlowSegmentType* in)
	3050	{
	3051	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
	3052	// this data structure is not used yet, so there is no code generated to fill its members
	3053	return base;
	3054	}
	3055	// -----------------------------------------------------------------------------------------------------------
	3056	template <> size_t GenericFill<IfcAirTerminalBoxType>(const DB& db, const LIST& params, IfcAirTerminalBoxType* in)
	3057	{
	3058	size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
	3059	// this data structure is not used yet, so there is no code generated to fill its members
	3060	return base;
	3061	}
	3062	// -----------------------------------------------------------------------------------------------------------
	3063	template <> size_t GenericFill<IfcPropertySingleValue>(const DB& db, const LIST& params, IfcPropertySingleValue* in)
	3064	{
	3065	size_t base = GenericFill(db,params,static_cast<IfcSimpleProperty*>(in));
	3066	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcPropertySingleValue"); } do { // convert the 'NominalValue' argument
	3067	boost::shared_ptr<const DataType> arg = params[base++];
	3068	if (dynamic_cast<const UNSET>(&arg)) break;
	3069	try { GenericConvert( in->NominalValue, arg, db ); break; }
	3070	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcPropertySingleValue to be a `IfcValue`")); }
	3071	} while(0);
	3072	do { // convert the 'Unit' argument
	3073	boost::shared_ptr<const DataType> arg = params[base++];
	3074	if (dynamic_cast<const UNSET>(&arg)) break;
	3075	try { GenericConvert( in->Unit, arg, db ); break; }
	3076	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcPropertySingleValue to be a `IfcUnit`")); }
	3077	} while(0);
	3078	return base;
	3079	}
	3080	// -----------------------------------------------------------------------------------------------------------
	3081	template <> size_t GenericFill<IfcAlarmType>(const DB& db, const LIST& params, IfcAlarmType* in)
	3082	{
	3083	size_t base = GenericFill(db,params,static_cast<IfcDistributionControlElementType*>(in));
	3084	// this data structure is not used yet, so there is no code generated to fill its members
	3085	return base;
	3086	}
	3087	// -----------------------------------------------------------------------------------------------------------
	3088	template <> size_t GenericFill<IfcEllipseProfileDef>(const DB& db, const LIST& params, IfcEllipseProfileDef* in)
	3089	{
	3090	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	3091	// this data structure is not used yet, so there is no code generated to fill its members
	3092	return base;
	3093	}
	3094	// -----------------------------------------------------------------------------------------------------------
	3095	template <> size_t GenericFill<IfcStair>(const DB& db, const LIST& params, IfcStair* in)
	3096	{
	3097	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	3098	// this data structure is not used yet, so there is no code generated to fill its members
	3099	return base;
	3100	}
	3101	// -----------------------------------------------------------------------------------------------------------
	3102	template <> size_t GenericFill<IfcSurfaceStyleShading>(const DB& db, const LIST& params, IfcSurfaceStyleShading* in)
	3103	{
	3104	size_t base = 0;
	3105	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcSurfaceStyleShading"); } do { // convert the 'SurfaceColour' argument
	3106	boost::shared_ptr<const DataType> arg = params[base++];
	3107	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcSurfaceStyleShading,1>::aux_is_derived[0]=true; break; }
	3108	try { GenericConvert( in->SurfaceColour, arg, db ); break; }
	3109	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcSurfaceStyleShading to be a `IfcColourRgb`")); }
	3110	} while(0);
	3111	return base;
	3112	}
	3113	// -----------------------------------------------------------------------------------------------------------
	3114	template <> size_t GenericFill<IfcPumpType>(const DB& db, const LIST& params, IfcPumpType* in)
	3115	{
	3116	size_t base = GenericFill(db,params,static_cast<IfcFlowMovingDeviceType*>(in));
	3117	// this data structure is not used yet, so there is no code generated to fill its members
	3118	return base;
	3119	}
	3120	// -----------------------------------------------------------------------------------------------------------
	3121	template <> size_t GenericFill<IfcDefinedSymbol>(const DB& db, const LIST& params, IfcDefinedSymbol* in)
1553	3122	{
1554	3123	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
1555		return base;
1556		}
1557		// -----------------------------------------------------------------------------------------------------------
1558		template <> size_t GenericFill<IfcConic>(const DB& db, const LIST& params, IfcConic* in)
1559		{
1560		size_t base = GenericFill(db,params,static_cast<IfcCurve*>(in));
1561		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcConic"); } do { // convert the 'Position' argument
1562		boost::shared_ptr<const DataType> arg = params[base++];
1563		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcConic,1>::aux_is_derived[0]=true; break; }
1564		try { GenericConvert( in->Position, arg, db ); break; }
1565		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcConic to be a `IfcAxis2Placement`")); }
1566		} while(0);
1567		return base;
1568		}
1569		// -----------------------------------------------------------------------------------------------------------
1570		template <> size_t GenericFill<IfcCircle>(const DB& db, const LIST& params, IfcCircle* in)
1571		{
1572		size_t base = GenericFill(db,params,static_cast<IfcConic*>(in));
1573		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcCircle"); } do { // convert the 'Radius' argument
1574		boost::shared_ptr<const DataType> arg = params[base++];
1575		try { GenericConvert( in->Radius, arg, db ); break; }
1576		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcCircle to be a `IfcPositiveLengthMeasure`")); }
1577		} while(0);
1578		return base;
1579		}
1580		// -----------------------------------------------------------------------------------------------------------
1581		template <> size_t GenericFill<IfcElementarySurface>(const DB& db, const LIST& params, IfcElementarySurface* in)
1582		{
1583		size_t base = GenericFill(db,params,static_cast<IfcSurface*>(in));
1584		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcElementarySurface"); } do { // convert the 'Position' argument
1585		boost::shared_ptr<const DataType> arg = params[base++];
1586		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcElementarySurface,1>::aux_is_derived[0]=true; break; }
1587		try { GenericConvert( in->Position, arg, db ); break; }
1588		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcElementarySurface to be a `IfcAxis2Placement3D`")); }
1589		} while(0);
1590		return base;
1591		}
1592		// -----------------------------------------------------------------------------------------------------------
1593		template <> size_t GenericFill<IfcPlane>(const DB& db, const LIST& params, IfcPlane* in)
1594		{
1595		size_t base = GenericFill(db,params,static_cast<IfcElementarySurface*>(in));
1596		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPlane"); } return base;
	3124	// this data structure is not used yet, so there is no code generated to fill its members
	3125	return base;
	3126	}
	3127	// -----------------------------------------------------------------------------------------------------------
	3128	template <> size_t GenericFill<IfcElementComponentType>(const DB& db, const LIST& params, IfcElementComponentType* in)
	3129	{
	3130	size_t base = GenericFill(db,params,static_cast<IfcElementType*>(in));
	3131	// this data structure is not used yet, so there is no code generated to fill its members
	3132	return base;
	3133	}
	3134	// -----------------------------------------------------------------------------------------------------------
	3135	template <> size_t GenericFill<IfcFastenerType>(const DB& db, const LIST& params, IfcFastenerType* in)
	3136	{
	3137	size_t base = GenericFill(db,params,static_cast<IfcElementComponentType*>(in));
	3138	// this data structure is not used yet, so there is no code generated to fill its members
	3139	return base;
	3140	}
	3141	// -----------------------------------------------------------------------------------------------------------
	3142	template <> size_t GenericFill<IfcMechanicalFastenerType>(const DB& db, const LIST& params, IfcMechanicalFastenerType* in)
	3143	{
	3144	size_t base = GenericFill(db,params,static_cast<IfcFastenerType*>(in));
	3145	// this data structure is not used yet, so there is no code generated to fill its members
	3146	return base;
	3147	}
	3148	// -----------------------------------------------------------------------------------------------------------
	3149	template <> size_t GenericFill<IfcFlowFitting>(const DB& db, const LIST& params, IfcFlowFitting* in)
	3150	{
	3151	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
	3152	// this data structure is not used yet, so there is no code generated to fill its members
	3153	return base;
	3154	}
	3155	// -----------------------------------------------------------------------------------------------------------
	3156	template <> size_t GenericFill<IfcLightSourceDirectional>(const DB& db, const LIST& params, IfcLightSourceDirectional* in)
	3157	{
	3158	size_t base = GenericFill(db,params,static_cast<IfcLightSource*>(in));
	3159	// this data structure is not used yet, so there is no code generated to fill its members
	3160	return base;
	3161	}
	3162	// -----------------------------------------------------------------------------------------------------------
	3163	template <> size_t GenericFill<IfcSurfaceStyle>(const DB& db, const LIST& params, IfcSurfaceStyle* in)
	3164	{
	3165	size_t base = GenericFill(db,params,static_cast<IfcPresentationStyle*>(in));
	3166	if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcSurfaceStyle"); } do { // convert the 'Side' argument
	3167	boost::shared_ptr<const DataType> arg = params[base++];
	3168	try { GenericConvert( in->Side, arg, db ); break; }
	3169	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcSurfaceStyle to be a `IfcSurfaceSide`")); }
	3170	} while(0);
	3171	do { // convert the 'Styles' argument
	3172	boost::shared_ptr<const DataType> arg = params[base++];
	3173	try { GenericConvert( in->Styles, arg, db ); break; }
	3174	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcSurfaceStyle to be a `SET [1:5] OF IfcSurfaceStyleElementSelect`")); }
	3175	} while(0);
	3176	return base;
	3177	}
	3178	// -----------------------------------------------------------------------------------------------------------
	3179	template <> size_t GenericFill<IfcAnnotationSurface>(const DB& db, const LIST& params, IfcAnnotationSurface* in)
	3180	{
	3181	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	3182	// this data structure is not used yet, so there is no code generated to fill its members
	3183	return base;
	3184	}
	3185	// -----------------------------------------------------------------------------------------------------------
	3186	template <> size_t GenericFill<IfcFlowController>(const DB& db, const LIST& params, IfcFlowController* in)
	3187	{
	3188	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
	3189	// this data structure is not used yet, so there is no code generated to fill its members
	3190	return base;
	3191	}
	3192	// -----------------------------------------------------------------------------------------------------------
	3193	template <> size_t GenericFill<IfcBuildingStorey>(const DB& db, const LIST& params, IfcBuildingStorey* in)
	3194	{
	3195	size_t base = GenericFill(db,params,static_cast<IfcSpatialStructureElement*>(in));
	3196	// this data structure is not used yet, so there is no code generated to fill its members
	3197	return base;
	3198	}
	3199	// -----------------------------------------------------------------------------------------------------------
	3200	template <> size_t GenericFill<IfcWorkControl>(const DB& db, const LIST& params, IfcWorkControl* in)
	3201	{
	3202	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	3203	// this data structure is not used yet, so there is no code generated to fill its members
	3204	return base;
	3205	}
	3206	// -----------------------------------------------------------------------------------------------------------
	3207	template <> size_t GenericFill<IfcWorkSchedule>(const DB& db, const LIST& params, IfcWorkSchedule* in)
	3208	{
	3209	size_t base = GenericFill(db,params,static_cast<IfcWorkControl*>(in));
	3210	// this data structure is not used yet, so there is no code generated to fill its members
	3211	return base;
	3212	}
	3213	// -----------------------------------------------------------------------------------------------------------
	3214	template <> size_t GenericFill<IfcDuctSegmentType>(const DB& db, const LIST& params, IfcDuctSegmentType* in)
	3215	{
	3216	size_t base = GenericFill(db,params,static_cast<IfcFlowSegmentType*>(in));
	3217	// this data structure is not used yet, so there is no code generated to fill its members
	3218	return base;
	3219	}
	3220	// -----------------------------------------------------------------------------------------------------------
	3221	template <> size_t GenericFill<IfcFace>(const DB& db, const LIST& params, IfcFace* in)
	3222	{
	3223	size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
	3224	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcFace"); } do { // convert the 'Bounds' argument
	3225	boost::shared_ptr<const DataType> arg = params[base++];
	3226	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcFace,1>::aux_is_derived[0]=true; break; }
	3227	try { GenericConvert( in->Bounds, arg, db ); break; }
	3228	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcFace to be a `SET [1:?] OF IfcFaceBound`")); }
	3229	} while(0);
	3230	return base;
	3231	}
	3232	// -----------------------------------------------------------------------------------------------------------
	3233	template <> size_t GenericFill<IfcStructuralSurfaceMember>(const DB& db, const LIST& params, IfcStructuralSurfaceMember* in)
	3234	{
	3235	size_t base = GenericFill(db,params,static_cast<IfcStructuralMember*>(in));
	3236	// this data structure is not used yet, so there is no code generated to fill its members
	3237	return base;
	3238	}
	3239	// -----------------------------------------------------------------------------------------------------------
	3240	template <> size_t GenericFill<IfcStructuralSurfaceMemberVarying>(const DB& db, const LIST& params, IfcStructuralSurfaceMemberVarying* in)
	3241	{
	3242	size_t base = GenericFill(db,params,static_cast<IfcStructuralSurfaceMember*>(in));
	3243	// this data structure is not used yet, so there is no code generated to fill its members
	3244	return base;
	3245	}
	3246	// -----------------------------------------------------------------------------------------------------------
	3247	template <> size_t GenericFill<IfcFaceSurface>(const DB& db, const LIST& params, IfcFaceSurface* in)
	3248	{
	3249	size_t base = GenericFill(db,params,static_cast<IfcFace*>(in));
	3250	// this data structure is not used yet, so there is no code generated to fill its members
	3251	return base;
1597	3252	}
1598	3253	// -----------------------------------------------------------------------------------------------------------
1599	3254	template <> size_t GenericFill<IfcCostSchedule>(const DB& db, const LIST& params, IfcCostSchedule* in)

1603	3258	return base;
1604	3259	}
1605	3260	// -----------------------------------------------------------------------------------------------------------
1606		template <> size_t GenericFill<IfcRightCircularCone>(const DB& db, const LIST& params, IfcRightCircularCone* in)
1607		{
1608		size_t base = GenericFill(db,params,static_cast<IfcCsgPrimitive3D*>(in));
1609		// this data structure is not used yet, so there is no code generated to fill its members
1610		return base;
1611		}
1612		// -----------------------------------------------------------------------------------------------------------
1613		template <> size_t GenericFill<IfcElementAssembly>(const DB& db, const LIST& params, IfcElementAssembly* in)
1614		{
1615		size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
1616		// this data structure is not used yet, so there is no code generated to fill its members
1617		return base;
1618		}
1619		// -----------------------------------------------------------------------------------------------------------
1620		template <> size_t GenericFill<IfcBuildingElement>(const DB& db, const LIST& params, IfcBuildingElement* in)
1621		{
1622		size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
1623		if (params.GetSize() < 8) { throw STEP::TypeError("expected 8 arguments to IfcBuildingElement"); } return base;
1624		}
1625		// -----------------------------------------------------------------------------------------------------------
1626		template <> size_t GenericFill<IfcMember>(const DB& db, const LIST& params, IfcMember* in)
1627		{
1628		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
1629		// this data structure is not used yet, so there is no code generated to fill its members
1630		return base;
1631		}
1632		// -----------------------------------------------------------------------------------------------------------
1633		template <> size_t GenericFill<IfcBuildingElementProxy>(const DB& db, const LIST& params, IfcBuildingElementProxy* in)
1634		{
1635		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
1636		// this data structure is not used yet, so there is no code generated to fill its members
1637		return base;
1638		}
1639		// -----------------------------------------------------------------------------------------------------------
1640		template <> size_t GenericFill<IfcStructuralActivity>(const DB& db, const LIST& params, IfcStructuralActivity* in)
1641		{
1642		size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
1643		// this data structure is not used yet, so there is no code generated to fill its members
1644		return base;
1645		}
1646		// -----------------------------------------------------------------------------------------------------------
1647		template <> size_t GenericFill<IfcStructuralAction>(const DB& db, const LIST& params, IfcStructuralAction* in)
1648		{
1649		size_t base = GenericFill(db,params,static_cast<IfcStructuralActivity*>(in));
1650		// this data structure is not used yet, so there is no code generated to fill its members
1651		return base;
1652		}
1653		// -----------------------------------------------------------------------------------------------------------
1654		template <> size_t GenericFill<IfcStructuralPlanarAction>(const DB& db, const LIST& params, IfcStructuralPlanarAction* in)
1655		{
1656		size_t base = GenericFill(db,params,static_cast<IfcStructuralAction*>(in));
1657		// this data structure is not used yet, so there is no code generated to fill its members
1658		return base;
1659		}
1660		// -----------------------------------------------------------------------------------------------------------
1661		template <> size_t GenericFill<IfcTopologicalRepresentationItem>(const DB& db, const LIST& params, IfcTopologicalRepresentationItem* in)
1662		{
1663		size_t base = GenericFill(db,params,static_cast<IfcRepresentationItem*>(in));
1664		return base;
1665		}
1666		// -----------------------------------------------------------------------------------------------------------
1667		template <> size_t GenericFill<IfcConnectedFaceSet>(const DB& db, const LIST& params, IfcConnectedFaceSet* in)
1668		{
1669		size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
1670		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcConnectedFaceSet"); } do { // convert the 'CfsFaces' argument
1671		boost::shared_ptr<const DataType> arg = params[base++];
1672		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcConnectedFaceSet,1>::aux_is_derived[0]=true; break; }
1673		try { GenericConvert( in->CfsFaces, arg, db ); break; }
1674		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcConnectedFaceSet to be a `SET [1:?] OF IfcFace`")); }
1675		} while(0);
1676		return base;
1677		}
1678		// -----------------------------------------------------------------------------------------------------------
1679		template <> size_t GenericFill<IfcSweptSurface>(const DB& db, const LIST& params, IfcSweptSurface* in)
1680		{
1681		size_t base = GenericFill(db,params,static_cast<IfcSurface*>(in));
1682		// this data structure is not used yet, so there is no code generated to fill its members
1683		return base;
1684		}
1685		// -----------------------------------------------------------------------------------------------------------
1686		template <> size_t GenericFill<IfcSurfaceOfLinearExtrusion>(const DB& db, const LIST& params, IfcSurfaceOfLinearExtrusion* in)
1687		{
1688		size_t base = GenericFill(db,params,static_cast<IfcSweptSurface*>(in));
1689		// this data structure is not used yet, so there is no code generated to fill its members
1690		return base;
1691		}
1692		// -----------------------------------------------------------------------------------------------------------
1693		template <> size_t GenericFill<IfcArbitraryProfileDefWithVoids>(const DB& db, const LIST& params, IfcArbitraryProfileDefWithVoids* in)
1694		{
1695		size_t base = GenericFill(db,params,static_cast<IfcArbitraryClosedProfileDef*>(in));
1696		// this data structure is not used yet, so there is no code generated to fill its members
1697		return base;
1698		}
1699		// -----------------------------------------------------------------------------------------------------------
1700		template <> size_t GenericFill<IfcProcess>(const DB& db, const LIST& params, IfcProcess* in)
1701		{
1702		size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
1703		// this data structure is not used yet, so there is no code generated to fill its members
1704		return base;
1705		}
1706		// -----------------------------------------------------------------------------------------------------------
1707		template <> size_t GenericFill<IfcProcedure>(const DB& db, const LIST& params, IfcProcedure* in)
1708		{
1709		size_t base = GenericFill(db,params,static_cast<IfcProcess*>(in));
1710		// this data structure is not used yet, so there is no code generated to fill its members
	3261	template <> size_t GenericFill<IfcPlanarExtent>(const DB& db, const LIST& params, IfcPlanarExtent* in)
	3262	{
	3263	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	3264	// this data structure is not used yet, so there is no code generated to fill its members
	3265	return base;
	3266	}
	3267	// -----------------------------------------------------------------------------------------------------------
	3268	template <> size_t GenericFill<IfcPlanarBox>(const DB& db, const LIST& params, IfcPlanarBox* in)
	3269	{
	3270	size_t base = GenericFill(db,params,static_cast<IfcPlanarExtent*>(in));
	3271	// this data structure is not used yet, so there is no code generated to fill its members
	3272	return base;
	3273	}
	3274	// -----------------------------------------------------------------------------------------------------------
	3275	template <> size_t GenericFill<IfcColourSpecification>(const DB& db, const LIST& params, IfcColourSpecification* in)
	3276	{
	3277	size_t base = 0;
	3278	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcColourSpecification"); } do { // convert the 'Name' argument
	3279	boost::shared_ptr<const DataType> arg = params[base++];
	3280	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcColourSpecification,1>::aux_is_derived[0]=true; break; }
	3281	if (dynamic_cast<const UNSET>(&arg)) break;
	3282	try { GenericConvert( in->Name, arg, db ); break; }
	3283	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcColourSpecification to be a `IfcLabel`")); }
	3284	} while(0);
1711	3285	return base;
1712	3286	}
1713	3287	// -----------------------------------------------------------------------------------------------------------

1724	3298	try { GenericConvert( in->Magnitude, arg, db ); break; }
1725	3299	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcVector to be a `IfcLengthMeasure`")); }
1726	3300	} while(0);
	3301	return base;
	3302	}
	3303	// -----------------------------------------------------------------------------------------------------------
	3304	template <> size_t GenericFill<IfcBeam>(const DB& db, const LIST& params, IfcBeam* in)
	3305	{
	3306	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	3307	// this data structure is not used yet, so there is no code generated to fill its members
	3308	return base;
	3309	}
	3310	// -----------------------------------------------------------------------------------------------------------
	3311	template <> size_t GenericFill<IfcColourRgb>(const DB& db, const LIST& params, IfcColourRgb* in)
	3312	{
	3313	size_t base = GenericFill(db,params,static_cast<IfcColourSpecification*>(in));
	3314	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcColourRgb"); } do { // convert the 'Red' argument
	3315	boost::shared_ptr<const DataType> arg = params[base++];
	3316	try { GenericConvert( in->Red, arg, db ); break; }
	3317	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcColourRgb to be a `IfcNormalisedRatioMeasure`")); }
	3318	} while(0);
	3319	do { // convert the 'Green' argument
	3320	boost::shared_ptr<const DataType> arg = params[base++];
	3321	try { GenericConvert( in->Green, arg, db ); break; }
	3322	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcColourRgb to be a `IfcNormalisedRatioMeasure`")); }
	3323	} while(0);
	3324	do { // convert the 'Blue' argument
	3325	boost::shared_ptr<const DataType> arg = params[base++];
	3326	try { GenericConvert( in->Blue, arg, db ); break; }
	3327	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcColourRgb to be a `IfcNormalisedRatioMeasure`")); }
	3328	} while(0);
	3329	return base;
	3330	}
	3331	// -----------------------------------------------------------------------------------------------------------
	3332	template <> size_t GenericFill<IfcStructuralPlanarAction>(const DB& db, const LIST& params, IfcStructuralPlanarAction* in)
	3333	{
	3334	size_t base = GenericFill(db,params,static_cast<IfcStructuralAction*>(in));
	3335	// this data structure is not used yet, so there is no code generated to fill its members
	3336	return base;
	3337	}
	3338	// -----------------------------------------------------------------------------------------------------------
	3339	template <> size_t GenericFill<IfcStructuralPlanarActionVarying>(const DB& db, const LIST& params, IfcStructuralPlanarActionVarying* in)
	3340	{
	3341	size_t base = GenericFill(db,params,static_cast<IfcStructuralPlanarAction*>(in));
	3342	// this data structure is not used yet, so there is no code generated to fill its members
	3343	return base;
	3344	}
	3345	// -----------------------------------------------------------------------------------------------------------
	3346	template <> size_t GenericFill<IfcSite>(const DB& db, const LIST& params, IfcSite* in)
	3347	{
	3348	size_t base = GenericFill(db,params,static_cast<IfcSpatialStructureElement*>(in));
	3349	if (params.GetSize() < 14) { throw STEP::TypeError("expected 14 arguments to IfcSite"); } do { // convert the 'RefLatitude' argument
	3350	boost::shared_ptr<const DataType> arg = params[base++];
	3351	if (dynamic_cast<const UNSET>(&arg)) break;
	3352	try { GenericConvert( in->RefLatitude, arg, db ); break; }
	3353	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 9 to IfcSite to be a `IfcCompoundPlaneAngleMeasure`")); }
	3354	} while(0);
	3355	do { // convert the 'RefLongitude' argument
	3356	boost::shared_ptr<const DataType> arg = params[base++];
	3357	if (dynamic_cast<const UNSET>(&arg)) break;
	3358	try { GenericConvert( in->RefLongitude, arg, db ); break; }
	3359	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 10 to IfcSite to be a `IfcCompoundPlaneAngleMeasure`")); }
	3360	} while(0);
	3361	do { // convert the 'RefElevation' argument
	3362	boost::shared_ptr<const DataType> arg = params[base++];
	3363	if (dynamic_cast<const UNSET>(&arg)) break;
	3364	try { GenericConvert( in->RefElevation, arg, db ); break; }
	3365	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 11 to IfcSite to be a `IfcLengthMeasure`")); }
	3366	} while(0);
	3367	do { // convert the 'LandTitleNumber' argument
	3368	boost::shared_ptr<const DataType> arg = params[base++];
	3369	if (dynamic_cast<const UNSET>(&arg)) break;
	3370	try { GenericConvert( in->LandTitleNumber, arg, db ); break; }
	3371	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 12 to IfcSite to be a `IfcLabel`")); }
	3372	} while(0);
	3373	do { // convert the 'SiteAddress' argument
	3374	boost::shared_ptr<const DataType> arg = params[base++];
	3375	if (dynamic_cast<const UNSET>(&arg)) break;
	3376	try { GenericConvert( in->SiteAddress, arg, db ); break; }
	3377	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 13 to IfcSite to be a `IfcPostalAddress`")); }
	3378	} while(0);
	3379	return base;
	3380	}
	3381	// -----------------------------------------------------------------------------------------------------------
	3382	template <> size_t GenericFill<IfcDiscreteAccessoryType>(const DB& db, const LIST& params, IfcDiscreteAccessoryType* in)
	3383	{
	3384	size_t base = GenericFill(db,params,static_cast<IfcElementComponentType*>(in));
	3385	// this data structure is not used yet, so there is no code generated to fill its members
	3386	return base;
	3387	}
	3388	// -----------------------------------------------------------------------------------------------------------
	3389	template <> size_t GenericFill<IfcVibrationIsolatorType>(const DB& db, const LIST& params, IfcVibrationIsolatorType* in)
	3390	{
	3391	size_t base = GenericFill(db,params,static_cast<IfcDiscreteAccessoryType*>(in));
	3392	// this data structure is not used yet, so there is no code generated to fill its members
	3393	return base;
	3394	}
	3395	// -----------------------------------------------------------------------------------------------------------
	3396	template <> size_t GenericFill<IfcEvaporativeCoolerType>(const DB& db, const LIST& params, IfcEvaporativeCoolerType* in)
	3397	{
	3398	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	3399	// this data structure is not used yet, so there is no code generated to fill its members
	3400	return base;
	3401	}
	3402	// -----------------------------------------------------------------------------------------------------------
	3403	template <> size_t GenericFill<IfcDistributionChamberElementType>(const DB& db, const LIST& params, IfcDistributionChamberElementType* in)
	3404	{
	3405	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
	3406	// this data structure is not used yet, so there is no code generated to fill its members
	3407	return base;
	3408	}
	3409	// -----------------------------------------------------------------------------------------------------------
	3410	template <> size_t GenericFill<IfcFeatureElementAddition>(const DB& db, const LIST& params, IfcFeatureElementAddition* in)
	3411	{
	3412	size_t base = GenericFill(db,params,static_cast<IfcFeatureElement*>(in));
	3413	// this data structure is not used yet, so there is no code generated to fill its members
	3414	return base;
	3415	}
	3416	// -----------------------------------------------------------------------------------------------------------
	3417	template <> size_t GenericFill<IfcStructuredDimensionCallout>(const DB& db, const LIST& params, IfcStructuredDimensionCallout* in)
	3418	{
	3419	size_t base = GenericFill(db,params,static_cast<IfcDraughtingCallout*>(in));
	3420	// this data structure is not used yet, so there is no code generated to fill its members
	3421	return base;
	3422	}
	3423	// -----------------------------------------------------------------------------------------------------------
	3424	template <> size_t GenericFill<IfcCoolingTowerType>(const DB& db, const LIST& params, IfcCoolingTowerType* in)
	3425	{
	3426	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	3427	// this data structure is not used yet, so there is no code generated to fill its members
	3428	return base;
	3429	}
	3430	// -----------------------------------------------------------------------------------------------------------
	3431	template <> size_t GenericFill<IfcCenterLineProfileDef>(const DB& db, const LIST& params, IfcCenterLineProfileDef* in)
	3432	{
	3433	size_t base = GenericFill(db,params,static_cast<IfcArbitraryOpenProfileDef*>(in));
	3434	// this data structure is not used yet, so there is no code generated to fill its members
	3435	return base;
	3436	}
	3437	// -----------------------------------------------------------------------------------------------------------
	3438	template <> size_t GenericFill<IfcWindowStyle>(const DB& db, const LIST& params, IfcWindowStyle* in)
	3439	{
	3440	size_t base = GenericFill(db,params,static_cast<IfcTypeProduct*>(in));
	3441	// this data structure is not used yet, so there is no code generated to fill its members
	3442	return base;
	3443	}
	3444	// -----------------------------------------------------------------------------------------------------------
	3445	template <> size_t GenericFill<IfcLightSourceGoniometric>(const DB& db, const LIST& params, IfcLightSourceGoniometric* in)
	3446	{
	3447	size_t base = GenericFill(db,params,static_cast<IfcLightSource*>(in));
	3448	// this data structure is not used yet, so there is no code generated to fill its members
	3449	return base;
	3450	}
	3451	// -----------------------------------------------------------------------------------------------------------
	3452	template <> size_t GenericFill<IfcTransformerType>(const DB& db, const LIST& params, IfcTransformerType* in)
	3453	{
	3454	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	3455	// this data structure is not used yet, so there is no code generated to fill its members
	3456	return base;
	3457	}
	3458	// -----------------------------------------------------------------------------------------------------------
	3459	template <> size_t GenericFill<IfcMemberType>(const DB& db, const LIST& params, IfcMemberType* in)
	3460	{
	3461	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	3462	// this data structure is not used yet, so there is no code generated to fill its members
	3463	return base;
	3464	}
	3465	// -----------------------------------------------------------------------------------------------------------
	3466	template <> size_t GenericFill<IfcSurfaceOfLinearExtrusion>(const DB& db, const LIST& params, IfcSurfaceOfLinearExtrusion* in)
	3467	{
	3468	size_t base = GenericFill(db,params,static_cast<IfcSweptSurface*>(in));
	3469	// this data structure is not used yet, so there is no code generated to fill its members
	3470	return base;
	3471	}
	3472	// -----------------------------------------------------------------------------------------------------------
	3473	template <> size_t GenericFill<IfcMotorConnectionType>(const DB& db, const LIST& params, IfcMotorConnectionType* in)
	3474	{
	3475	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	3476	// this data structure is not used yet, so there is no code generated to fill its members
	3477	return base;
	3478	}
	3479	// -----------------------------------------------------------------------------------------------------------
	3480	template <> size_t GenericFill<IfcFlowTreatmentDeviceType>(const DB& db, const LIST& params, IfcFlowTreatmentDeviceType* in)
	3481	{
	3482	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
	3483	// this data structure is not used yet, so there is no code generated to fill its members
	3484	return base;
	3485	}
	3486	// -----------------------------------------------------------------------------------------------------------
	3487	template <> size_t GenericFill<IfcDuctSilencerType>(const DB& db, const LIST& params, IfcDuctSilencerType* in)
	3488	{
	3489	size_t base = GenericFill(db,params,static_cast<IfcFlowTreatmentDeviceType*>(in));
	3490	// this data structure is not used yet, so there is no code generated to fill its members
	3491	return base;
	3492	}
	3493	// -----------------------------------------------------------------------------------------------------------
	3494	template <> size_t GenericFill<IfcFurnishingElementType>(const DB& db, const LIST& params, IfcFurnishingElementType* in)
	3495	{
	3496	size_t base = GenericFill(db,params,static_cast<IfcElementType*>(in));
	3497	// this data structure is not used yet, so there is no code generated to fill its members
	3498	return base;
	3499	}
	3500	// -----------------------------------------------------------------------------------------------------------
	3501	template <> size_t GenericFill<IfcSystemFurnitureElementType>(const DB& db, const LIST& params, IfcSystemFurnitureElementType* in)
	3502	{
	3503	size_t base = GenericFill(db,params,static_cast<IfcFurnishingElementType*>(in));
	3504	// this data structure is not used yet, so there is no code generated to fill its members
	3505	return base;
	3506	}
	3507	// -----------------------------------------------------------------------------------------------------------
	3508	template <> size_t GenericFill<IfcWasteTerminalType>(const DB& db, const LIST& params, IfcWasteTerminalType* in)
	3509	{
	3510	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	3511	// this data structure is not used yet, so there is no code generated to fill its members
	3512	return base;
	3513	}
	3514	// -----------------------------------------------------------------------------------------------------------
	3515	template <> size_t GenericFill<IfcBSplineCurve>(const DB& db, const LIST& params, IfcBSplineCurve* in)
	3516	{
	3517	size_t base = GenericFill(db,params,static_cast<IfcBoundedCurve*>(in));
	3518	if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcBSplineCurve"); } do { // convert the 'Degree' argument
	3519	boost::shared_ptr<const DataType> arg = params[base++];
	3520	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBSplineCurve,5>::aux_is_derived[0]=true; break; }
	3521	try { GenericConvert( in->Degree, arg, db ); break; }
	3522	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcBSplineCurve to be a `INTEGER`")); }
	3523	} while(0);
	3524	do { // convert the 'ControlPointsList' argument
	3525	boost::shared_ptr<const DataType> arg = params[base++];
	3526	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBSplineCurve,5>::aux_is_derived[1]=true; break; }
	3527	try { GenericConvert( in->ControlPointsList, arg, db ); break; }
	3528	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcBSplineCurve to be a `LIST [2:?] OF IfcCartesianPoint`")); }
	3529	} while(0);
	3530	do { // convert the 'CurveForm' argument
	3531	boost::shared_ptr<const DataType> arg = params[base++];
	3532	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBSplineCurve,5>::aux_is_derived[2]=true; break; }
	3533	try { GenericConvert( in->CurveForm, arg, db ); break; }
	3534	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcBSplineCurve to be a `IfcBSplineCurveForm`")); }
	3535	} while(0);
	3536	do { // convert the 'ClosedCurve' argument
	3537	boost::shared_ptr<const DataType> arg = params[base++];
	3538	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBSplineCurve,5>::aux_is_derived[3]=true; break; }
	3539	try { GenericConvert( in->ClosedCurve, arg, db ); break; }
	3540	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcBSplineCurve to be a `LOGICAL`")); }
	3541	} while(0);
	3542	do { // convert the 'SelfIntersect' argument
	3543	boost::shared_ptr<const DataType> arg = params[base++];
	3544	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBSplineCurve,5>::aux_is_derived[4]=true; break; }
	3545	try { GenericConvert( in->SelfIntersect, arg, db ); break; }
	3546	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcBSplineCurve to be a `LOGICAL`")); }
	3547	} while(0);
	3548	return base;
	3549	}
	3550	// -----------------------------------------------------------------------------------------------------------
	3551	template <> size_t GenericFill<IfcBezierCurve>(const DB& db, const LIST& params, IfcBezierCurve* in)
	3552	{
	3553	size_t base = GenericFill(db,params,static_cast<IfcBSplineCurve*>(in));
	3554	// this data structure is not used yet, so there is no code generated to fill its members
	3555	return base;
	3556	}
	3557	// -----------------------------------------------------------------------------------------------------------
	3558	template <> size_t GenericFill<IfcActuatorType>(const DB& db, const LIST& params, IfcActuatorType* in)
	3559	{
	3560	size_t base = GenericFill(db,params,static_cast<IfcDistributionControlElementType*>(in));
	3561	// this data structure is not used yet, so there is no code generated to fill its members
	3562	return base;
	3563	}
	3564	// -----------------------------------------------------------------------------------------------------------
	3565	template <> size_t GenericFill<IfcDistributionControlElement>(const DB& db, const LIST& params, IfcDistributionControlElement* in)
	3566	{
	3567	size_t base = GenericFill(db,params,static_cast<IfcDistributionElement*>(in));
	3568	// this data structure is not used yet, so there is no code generated to fill its members
	3569	return base;
	3570	}
	3571	// -----------------------------------------------------------------------------------------------------------
	3572	template <> size_t GenericFill<IfcAnnotation>(const DB& db, const LIST& params, IfcAnnotation* in)
	3573	{
	3574	size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
	3575	if (params.GetSize() < 7) { throw STEP::TypeError("expected 7 arguments to IfcAnnotation"); } return base;
	3576	}
	3577	// -----------------------------------------------------------------------------------------------------------
	3578	template <> size_t GenericFill<IfcShellBasedSurfaceModel>(const DB& db, const LIST& params, IfcShellBasedSurfaceModel* in)
	3579	{
	3580	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	3581	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcShellBasedSurfaceModel"); } do { // convert the 'SbsmBoundary' argument
	3582	boost::shared_ptr<const DataType> arg = params[base++];
	3583	try { GenericConvert( in->SbsmBoundary, arg, db ); break; }
	3584	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcShellBasedSurfaceModel to be a `SET [1:?] OF IfcShell`")); }
	3585	} while(0);
	3586	return base;
	3587	}
	3588	// -----------------------------------------------------------------------------------------------------------
	3589	template <> size_t GenericFill<IfcActionRequest>(const DB& db, const LIST& params, IfcActionRequest* in)
	3590	{
	3591	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	3592	// this data structure is not used yet, so there is no code generated to fill its members
	3593	return base;
	3594	}
	3595	// -----------------------------------------------------------------------------------------------------------
	3596	template <> size_t GenericFill<IfcExtrudedAreaSolid>(const DB& db, const LIST& params, IfcExtrudedAreaSolid* in)
	3597	{
	3598	size_t base = GenericFill(db,params,static_cast<IfcSweptAreaSolid*>(in));
	3599	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcExtrudedAreaSolid"); } do { // convert the 'ExtrudedDirection' argument
	3600	boost::shared_ptr<const DataType> arg = params[base++];
	3601	try { GenericConvert( in->ExtrudedDirection, arg, db ); break; }
	3602	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcExtrudedAreaSolid to be a `IfcDirection`")); }
	3603	} while(0);
	3604	do { // convert the 'Depth' argument
	3605	boost::shared_ptr<const DataType> arg = params[base++];
	3606	try { GenericConvert( in->Depth, arg, db ); break; }
	3607	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcExtrudedAreaSolid to be a `IfcPositiveLengthMeasure`")); }
	3608	} while(0);
	3609	return base;
	3610	}
	3611	// -----------------------------------------------------------------------------------------------------------
	3612	template <> size_t GenericFill<IfcSystem>(const DB& db, const LIST& params, IfcSystem* in)
	3613	{
	3614	size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
	3615	// this data structure is not used yet, so there is no code generated to fill its members
	3616	return base;
	3617	}
	3618	// -----------------------------------------------------------------------------------------------------------
	3619	template <> size_t GenericFill<IfcFillAreaStyleHatching>(const DB& db, const LIST& params, IfcFillAreaStyleHatching* in)
	3620	{
	3621	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	3622	// this data structure is not used yet, so there is no code generated to fill its members
	3623	return base;
	3624	}
	3625	// -----------------------------------------------------------------------------------------------------------
	3626	template <> size_t GenericFill<IfcRelVoidsElement>(const DB& db, const LIST& params, IfcRelVoidsElement* in)
	3627	{
	3628	size_t base = GenericFill(db,params,static_cast<IfcRelConnects*>(in));
	3629	if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelVoidsElement"); } do { // convert the 'RelatingBuildingElement' argument
	3630	boost::shared_ptr<const DataType> arg = params[base++];
	3631	try { GenericConvert( in->RelatingBuildingElement, arg, db ); break; }
	3632	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRelVoidsElement to be a `IfcElement`")); }
	3633	} while(0);
	3634	do { // convert the 'RelatedOpeningElement' argument
	3635	boost::shared_ptr<const DataType> arg = params[base++];
	3636	try { GenericConvert( in->RelatedOpeningElement, arg, db ); break; }
	3637	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcRelVoidsElement to be a `IfcFeatureElementSubtraction`")); }
	3638	} while(0);
	3639	return base;
	3640	}
	3641	// -----------------------------------------------------------------------------------------------------------
	3642	template <> size_t GenericFill<IfcSurfaceCurveSweptAreaSolid>(const DB& db, const LIST& params, IfcSurfaceCurveSweptAreaSolid* in)
	3643	{
	3644	size_t base = GenericFill(db,params,static_cast<IfcSweptAreaSolid*>(in));
	3645	// this data structure is not used yet, so there is no code generated to fill its members
	3646	return base;
	3647	}
	3648	// -----------------------------------------------------------------------------------------------------------
	3649	template <> size_t GenericFill<IfcCartesianTransformationOperator3DnonUniform>(const DB& db, const LIST& params, IfcCartesianTransformationOperator3DnonUniform* in)
	3650	{
	3651	size_t base = GenericFill(db,params,static_cast<IfcCartesianTransformationOperator3D*>(in));
	3652	if (params.GetSize() < 7) { throw STEP::TypeError("expected 7 arguments to IfcCartesianTransformationOperator3DnonUniform"); } do { // convert the 'Scale2' argument
	3653	boost::shared_ptr<const DataType> arg = params[base++];
	3654	if (dynamic_cast<const UNSET>(&arg)) break;
	3655	try { GenericConvert( in->Scale2, arg, db ); break; }
	3656	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcCartesianTransformationOperator3DnonUniform to be a `REAL`")); }
	3657	} while(0);
	3658	do { // convert the 'Scale3' argument
	3659	boost::shared_ptr<const DataType> arg = params[base++];
	3660	if (dynamic_cast<const UNSET>(&arg)) break;
	3661	try { GenericConvert( in->Scale3, arg, db ); break; }
	3662	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 6 to IfcCartesianTransformationOperator3DnonUniform to be a `REAL`")); }
	3663	} while(0);
	3664	return base;
	3665	}
	3666	// -----------------------------------------------------------------------------------------------------------
	3667	template <> size_t GenericFill<IfcCurtainWallType>(const DB& db, const LIST& params, IfcCurtainWallType* in)
	3668	{
	3669	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	3670	// this data structure is not used yet, so there is no code generated to fill its members
	3671	return base;
	3672	}
	3673	// -----------------------------------------------------------------------------------------------------------
	3674	template <> size_t GenericFill<IfcEquipmentStandard>(const DB& db, const LIST& params, IfcEquipmentStandard* in)
	3675	{
	3676	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	3677	// this data structure is not used yet, so there is no code generated to fill its members
	3678	return base;
	3679	}
	3680	// -----------------------------------------------------------------------------------------------------------
	3681	template <> size_t GenericFill<IfcFlowStorageDeviceType>(const DB& db, const LIST& params, IfcFlowStorageDeviceType* in)
	3682	{
	3683	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
	3684	// this data structure is not used yet, so there is no code generated to fill its members
	3685	return base;
	3686	}
	3687	// -----------------------------------------------------------------------------------------------------------
	3688	template <> size_t GenericFill<IfcDiameterDimension>(const DB& db, const LIST& params, IfcDiameterDimension* in)
	3689	{
	3690	size_t base = GenericFill(db,params,static_cast<IfcDimensionCurveDirectedCallout*>(in));
	3691	// this data structure is not used yet, so there is no code generated to fill its members
	3692	return base;
	3693	}
	3694	// -----------------------------------------------------------------------------------------------------------
	3695	template <> size_t GenericFill<IfcSwitchingDeviceType>(const DB& db, const LIST& params, IfcSwitchingDeviceType* in)
	3696	{
	3697	size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
	3698	// this data structure is not used yet, so there is no code generated to fill its members
	3699	return base;
	3700	}
	3701	// -----------------------------------------------------------------------------------------------------------
	3702	template <> size_t GenericFill<IfcWindow>(const DB& db, const LIST& params, IfcWindow* in)
	3703	{
	3704	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	3705	// this data structure is not used yet, so there is no code generated to fill its members
	3706	return base;
	3707	}
	3708	// -----------------------------------------------------------------------------------------------------------
	3709	template <> size_t GenericFill<IfcFlowTreatmentDevice>(const DB& db, const LIST& params, IfcFlowTreatmentDevice* in)
	3710	{
	3711	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
	3712	// this data structure is not used yet, so there is no code generated to fill its members
	3713	return base;
	3714	}
	3715	// -----------------------------------------------------------------------------------------------------------
	3716	template <> size_t GenericFill<IfcChillerType>(const DB& db, const LIST& params, IfcChillerType* in)
	3717	{
	3718	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	3719	// this data structure is not used yet, so there is no code generated to fill its members
	3720	return base;
	3721	}
	3722	// -----------------------------------------------------------------------------------------------------------
	3723	template <> size_t GenericFill<IfcRectangleHollowProfileDef>(const DB& db, const LIST& params, IfcRectangleHollowProfileDef* in)
	3724	{
	3725	size_t base = GenericFill(db,params,static_cast<IfcRectangleProfileDef*>(in));
	3726	// this data structure is not used yet, so there is no code generated to fill its members
	3727	return base;
	3728	}
	3729	// -----------------------------------------------------------------------------------------------------------
	3730	template <> size_t GenericFill<IfcBoxedHalfSpace>(const DB& db, const LIST& params, IfcBoxedHalfSpace* in)
	3731	{
	3732	size_t base = GenericFill(db,params,static_cast<IfcHalfSpaceSolid*>(in));
	3733	// this data structure is not used yet, so there is no code generated to fill its members
	3734	return base;
	3735	}
	3736	// -----------------------------------------------------------------------------------------------------------
	3737	template <> size_t GenericFill<IfcAxis2Placement2D>(const DB& db, const LIST& params, IfcAxis2Placement2D* in)
	3738	{
	3739	size_t base = GenericFill(db,params,static_cast<IfcPlacement*>(in));
	3740	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcAxis2Placement2D"); } do { // convert the 'RefDirection' argument
	3741	boost::shared_ptr<const DataType> arg = params[base++];
	3742	if (dynamic_cast<const UNSET>(&arg)) break;
	3743	try { GenericConvert( in->RefDirection, arg, db ); break; }
	3744	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcAxis2Placement2D to be a `IfcDirection`")); }
	3745	} while(0);
	3746	return base;
	3747	}
	3748	// -----------------------------------------------------------------------------------------------------------
	3749	template <> size_t GenericFill<IfcSpaceProgram>(const DB& db, const LIST& params, IfcSpaceProgram* in)
	3750	{
	3751	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	3752	// this data structure is not used yet, so there is no code generated to fill its members
	3753	return base;
	3754	}
	3755	// -----------------------------------------------------------------------------------------------------------
	3756	template <> size_t GenericFill<IfcPoint>(const DB& db, const LIST& params, IfcPoint* in)
	3757	{
	3758	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	3759	return base;
	3760	}
	3761	// -----------------------------------------------------------------------------------------------------------
	3762	template <> size_t GenericFill<IfcCartesianPoint>(const DB& db, const LIST& params, IfcCartesianPoint* in)
	3763	{
	3764	size_t base = GenericFill(db,params,static_cast<IfcPoint*>(in));
	3765	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcCartesianPoint"); } do { // convert the 'Coordinates' argument
	3766	boost::shared_ptr<const DataType> arg = params[base++];
	3767	try { GenericConvert( in->Coordinates, arg, db ); break; }
	3768	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcCartesianPoint to be a `LIST [1:3] OF IfcLengthMeasure`")); }
	3769	} while(0);
	3770	return base;
	3771	}
	3772	// -----------------------------------------------------------------------------------------------------------
	3773	template <> size_t GenericFill<IfcBoundedSurface>(const DB& db, const LIST& params, IfcBoundedSurface* in)
	3774	{
	3775	size_t base = GenericFill(db,params,static_cast<IfcSurface*>(in));
	3776	// this data structure is not used yet, so there is no code generated to fill its members
	3777	return base;
	3778	}
	3779	// -----------------------------------------------------------------------------------------------------------
	3780	template <> size_t GenericFill<IfcLoop>(const DB& db, const LIST& params, IfcLoop* in)
	3781	{
	3782	size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
	3783	return base;
	3784	}
	3785	// -----------------------------------------------------------------------------------------------------------
	3786	template <> size_t GenericFill<IfcPolyLoop>(const DB& db, const LIST& params, IfcPolyLoop* in)
	3787	{
	3788	size_t base = GenericFill(db,params,static_cast<IfcLoop*>(in));
	3789	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPolyLoop"); } do { // convert the 'Polygon' argument
	3790	boost::shared_ptr<const DataType> arg = params[base++];
	3791	try { GenericConvert( in->Polygon, arg, db ); break; }
	3792	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcPolyLoop to be a `LIST [3:?] OF IfcCartesianPoint`")); }
	3793	} while(0);
	3794	return base;
	3795	}
	3796	// -----------------------------------------------------------------------------------------------------------
	3797	template <> size_t GenericFill<IfcTerminatorSymbol>(const DB& db, const LIST& params, IfcTerminatorSymbol* in)
	3798	{
	3799	size_t base = GenericFill(db,params,static_cast<IfcAnnotationSymbolOccurrence*>(in));
	3800	// this data structure is not used yet, so there is no code generated to fill its members
	3801	return base;
	3802	}
	3803	// -----------------------------------------------------------------------------------------------------------
	3804	template <> size_t GenericFill<IfcDimensionCurveTerminator>(const DB& db, const LIST& params, IfcDimensionCurveTerminator* in)
	3805	{
	3806	size_t base = GenericFill(db,params,static_cast<IfcTerminatorSymbol*>(in));
	3807	// this data structure is not used yet, so there is no code generated to fill its members
	3808	return base;
	3809	}
	3810	// -----------------------------------------------------------------------------------------------------------
	3811	template <> size_t GenericFill<IfcTrapeziumProfileDef>(const DB& db, const LIST& params, IfcTrapeziumProfileDef* in)
	3812	{
	3813	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	3814	// this data structure is not used yet, so there is no code generated to fill its members
	3815	return base;
	3816	}
	3817	// -----------------------------------------------------------------------------------------------------------
	3818	template <> size_t GenericFill<IfcRepresentationContext>(const DB& db, const LIST& params, IfcRepresentationContext* in)
	3819	{
	3820	size_t base = 0;
	3821	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcRepresentationContext"); } do { // convert the 'ContextIdentifier' argument
	3822	boost::shared_ptr<const DataType> arg = params[base++];
	3823	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentationContext,2>::aux_is_derived[0]=true; break; }
	3824	if (dynamic_cast<const UNSET>(&arg)) break;
	3825	try { GenericConvert( in->ContextIdentifier, arg, db ); break; }
	3826	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcRepresentationContext to be a `IfcLabel`")); }
	3827	} while(0);
	3828	do { // convert the 'ContextType' argument
	3829	boost::shared_ptr<const DataType> arg = params[base++];
	3830	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentationContext,2>::aux_is_derived[1]=true; break; }
	3831	if (dynamic_cast<const UNSET>(&arg)) break;
	3832	try { GenericConvert( in->ContextType, arg, db ); break; }
	3833	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcRepresentationContext to be a `IfcLabel`")); }
	3834	} while(0);
	3835	return base;
	3836	}
	3837	// -----------------------------------------------------------------------------------------------------------
	3838	template <> size_t GenericFill<IfcGeometricRepresentationContext>(const DB& db, const LIST& params, IfcGeometricRepresentationContext* in)
	3839	{
	3840	size_t base = GenericFill(db,params,static_cast<IfcRepresentationContext*>(in));
	3841	if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcGeometricRepresentationContext"); } do { // convert the 'CoordinateSpaceDimension' argument
	3842	boost::shared_ptr<const DataType> arg = params[base++];
	3843	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcGeometricRepresentationContext,4>::aux_is_derived[0]=true; break; }
	3844	try { GenericConvert( in->CoordinateSpaceDimension, arg, db ); break; }
	3845	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcGeometricRepresentationContext to be a `IfcDimensionCount`")); }
	3846	} while(0);
	3847	do { // convert the 'Precision' argument
	3848	boost::shared_ptr<const DataType> arg = params[base++];
	3849	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcGeometricRepresentationContext,4>::aux_is_derived[1]=true; break; }
	3850	if (dynamic_cast<const UNSET>(&arg)) break;
	3851	try { GenericConvert( in->Precision, arg, db ); break; }
	3852	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcGeometricRepresentationContext to be a `REAL`")); }
	3853	} while(0);
	3854	do { // convert the 'WorldCoordinateSystem' argument
	3855	boost::shared_ptr<const DataType> arg = params[base++];
	3856	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcGeometricRepresentationContext,4>::aux_is_derived[2]=true; break; }
	3857	try { GenericConvert( in->WorldCoordinateSystem, arg, db ); break; }
	3858	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcGeometricRepresentationContext to be a `IfcAxis2Placement`")); }
	3859	} while(0);
	3860	do { // convert the 'TrueNorth' argument
	3861	boost::shared_ptr<const DataType> arg = params[base++];
	3862	if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcGeometricRepresentationContext,4>::aux_is_derived[3]=true; break; }
	3863	if (dynamic_cast<const UNSET>(&arg)) break;
	3864	try { GenericConvert( in->TrueNorth, arg, db ); break; }
	3865	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcGeometricRepresentationContext to be a `IfcDirection`")); }
	3866	} while(0);
	3867	return base;
	3868	}
	3869	// -----------------------------------------------------------------------------------------------------------
	3870	template <> size_t GenericFill<IfcCurveBoundedPlane>(const DB& db, const LIST& params, IfcCurveBoundedPlane* in)
	3871	{
	3872	size_t base = GenericFill(db,params,static_cast<IfcBoundedSurface*>(in));
	3873	// this data structure is not used yet, so there is no code generated to fill its members
	3874	return base;
	3875	}
	3876	// -----------------------------------------------------------------------------------------------------------
	3877	template <> size_t GenericFill<IfcSIUnit>(const DB& db, const LIST& params, IfcSIUnit* in)
	3878	{
	3879	size_t base = GenericFill(db,params,static_cast<IfcNamedUnit*>(in));
	3880	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcSIUnit"); } do { // convert the 'Prefix' argument
	3881	boost::shared_ptr<const DataType> arg = params[base++];
	3882	if (dynamic_cast<const UNSET>(&arg)) break;
	3883	try { GenericConvert( in->Prefix, arg, db ); break; }
	3884	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcSIUnit to be a `IfcSIPrefix`")); }
	3885	} while(0);
	3886	do { // convert the 'Name' argument
	3887	boost::shared_ptr<const DataType> arg = params[base++];
	3888	try { GenericConvert( in->Name, arg, db ); break; }
	3889	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcSIUnit to be a `IfcSIUnitName`")); }
	3890	} while(0);
	3891	return base;
	3892	}
	3893	// -----------------------------------------------------------------------------------------------------------
	3894	template <> size_t GenericFill<IfcStructuralReaction>(const DB& db, const LIST& params, IfcStructuralReaction* in)
	3895	{
	3896	size_t base = GenericFill(db,params,static_cast<IfcStructuralActivity*>(in));
	3897	// this data structure is not used yet, so there is no code generated to fill its members
	3898	return base;
	3899	}
	3900	// -----------------------------------------------------------------------------------------------------------
	3901	template <> size_t GenericFill<IfcStructuralPointReaction>(const DB& db, const LIST& params, IfcStructuralPointReaction* in)
	3902	{
	3903	size_t base = GenericFill(db,params,static_cast<IfcStructuralReaction*>(in));
	3904	// this data structure is not used yet, so there is no code generated to fill its members
	3905	return base;
	3906	}
	3907	// -----------------------------------------------------------------------------------------------------------
	3908	template <> size_t GenericFill<IfcAxis1Placement>(const DB& db, const LIST& params, IfcAxis1Placement* in)
	3909	{
	3910	size_t base = GenericFill(db,params,static_cast<IfcPlacement*>(in));
	3911	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcAxis1Placement"); } do { // convert the 'Axis' argument
	3912	boost::shared_ptr<const DataType> arg = params[base++];
	3913	if (dynamic_cast<const UNSET>(&arg)) break;
	3914	try { GenericConvert( in->Axis, arg, db ); break; }
	3915	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcAxis1Placement to be a `IfcDirection`")); }
	3916	} while(0);
	3917	return base;
	3918	}
	3919	// -----------------------------------------------------------------------------------------------------------
	3920	template <> size_t GenericFill<IfcElectricApplianceType>(const DB& db, const LIST& params, IfcElectricApplianceType* in)
	3921	{
	3922	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	3923	// this data structure is not used yet, so there is no code generated to fill its members
	3924	return base;
	3925	}
	3926	// -----------------------------------------------------------------------------------------------------------
	3927	template <> size_t GenericFill<IfcSensorType>(const DB& db, const LIST& params, IfcSensorType* in)
	3928	{
	3929	size_t base = GenericFill(db,params,static_cast<IfcDistributionControlElementType*>(in));
	3930	// this data structure is not used yet, so there is no code generated to fill its members
	3931	return base;
	3932	}
	3933	// -----------------------------------------------------------------------------------------------------------
	3934	template <> size_t GenericFill<IfcFurnishingElement>(const DB& db, const LIST& params, IfcFurnishingElement* in)
	3935	{
	3936	size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
	3937	// this data structure is not used yet, so there is no code generated to fill its members
	3938	return base;
	3939	}
	3940	// -----------------------------------------------------------------------------------------------------------
	3941	template <> size_t GenericFill<IfcProtectiveDeviceType>(const DB& db, const LIST& params, IfcProtectiveDeviceType* in)
	3942	{
	3943	size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
	3944	// this data structure is not used yet, so there is no code generated to fill its members
	3945	return base;
	3946	}
	3947	// -----------------------------------------------------------------------------------------------------------
	3948	template <> size_t GenericFill<IfcZShapeProfileDef>(const DB& db, const LIST& params, IfcZShapeProfileDef* in)
	3949	{
	3950	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	3951	// this data structure is not used yet, so there is no code generated to fill its members
	3952	return base;
	3953	}
	3954	// -----------------------------------------------------------------------------------------------------------
	3955	template <> size_t GenericFill<IfcScheduleTimeControl>(const DB& db, const LIST& params, IfcScheduleTimeControl* in)
	3956	{
	3957	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	3958	// this data structure is not used yet, so there is no code generated to fill its members
	3959	return base;
	3960	}
	3961	// -----------------------------------------------------------------------------------------------------------
	3962	template <> size_t GenericFill<IfcRepresentationMap>(const DB& db, const LIST& params, IfcRepresentationMap* in)
	3963	{
	3964	size_t base = 0;
	3965	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcRepresentationMap"); } do { // convert the 'MappingOrigin' argument
	3966	boost::shared_ptr<const DataType> arg = params[base++];
	3967	try { GenericConvert( in->MappingOrigin, arg, db ); break; }
	3968	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcRepresentationMap to be a `IfcAxis2Placement`")); }
	3969	} while(0);
	3970	do { // convert the 'MappedRepresentation' argument
	3971	boost::shared_ptr<const DataType> arg = params[base++];
	3972	try { GenericConvert( in->MappedRepresentation, arg, db ); break; }
	3973	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcRepresentationMap to be a `IfcRepresentation`")); }
	3974	} while(0);
	3975	return base;
	3976	}
	3977	// -----------------------------------------------------------------------------------------------------------
	3978	template <> size_t GenericFill<IfcClosedShell>(const DB& db, const LIST& params, IfcClosedShell* in)
	3979	{
	3980	size_t base = GenericFill(db,params,static_cast<IfcConnectedFaceSet*>(in));
	3981	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcClosedShell"); } return base;
	3982	}
	3983	// -----------------------------------------------------------------------------------------------------------
	3984	template <> size_t GenericFill<IfcBuildingElementPart>(const DB& db, const LIST& params, IfcBuildingElementPart* in)
	3985	{
	3986	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementComponent*>(in));
	3987	// this data structure is not used yet, so there is no code generated to fill its members
	3988	return base;
	3989	}
	3990	// -----------------------------------------------------------------------------------------------------------
	3991	template <> size_t GenericFill<IfcBlock>(const DB& db, const LIST& params, IfcBlock* in)
	3992	{
	3993	size_t base = GenericFill(db,params,static_cast<IfcCsgPrimitive3D*>(in));
	3994	// this data structure is not used yet, so there is no code generated to fill its members
	3995	return base;
	3996	}
	3997	// -----------------------------------------------------------------------------------------------------------
	3998	template <> size_t GenericFill<IfcLightFixtureType>(const DB& db, const LIST& params, IfcLightFixtureType* in)
	3999	{
	4000	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	4001	// this data structure is not used yet, so there is no code generated to fill its members
	4002	return base;
	4003	}
	4004	// -----------------------------------------------------------------------------------------------------------
	4005	template <> size_t GenericFill<IfcOpeningElement>(const DB& db, const LIST& params, IfcOpeningElement* in)
	4006	{
	4007	size_t base = GenericFill(db,params,static_cast<IfcFeatureElementSubtraction*>(in));
	4008	if (params.GetSize() < 8) { throw STEP::TypeError("expected 8 arguments to IfcOpeningElement"); } return base;
	4009	}
	4010	// -----------------------------------------------------------------------------------------------------------
	4011	template <> size_t GenericFill<IfcLightSourceSpot>(const DB& db, const LIST& params, IfcLightSourceSpot* in)
	4012	{
	4013	size_t base = GenericFill(db,params,static_cast<IfcLightSourcePositional*>(in));
	4014	// this data structure is not used yet, so there is no code generated to fill its members
	4015	return base;
	4016	}
	4017	// -----------------------------------------------------------------------------------------------------------
	4018	template <> size_t GenericFill<IfcTendonAnchor>(const DB& db, const LIST& params, IfcTendonAnchor* in)
	4019	{
	4020	size_t base = GenericFill(db,params,static_cast<IfcReinforcingElement*>(in));
	4021	// this data structure is not used yet, so there is no code generated to fill its members
	4022	return base;
	4023	}
	4024	// -----------------------------------------------------------------------------------------------------------
	4025	template <> size_t GenericFill<IfcElectricFlowStorageDeviceType>(const DB& db, const LIST& params, IfcElectricFlowStorageDeviceType* in)
	4026	{
	4027	size_t base = GenericFill(db,params,static_cast<IfcFlowStorageDeviceType*>(in));
	4028	// this data structure is not used yet, so there is no code generated to fill its members
	4029	return base;
	4030	}
	4031	// -----------------------------------------------------------------------------------------------------------
	4032	template <> size_t GenericFill<IfcSphere>(const DB& db, const LIST& params, IfcSphere* in)
	4033	{
	4034	size_t base = GenericFill(db,params,static_cast<IfcCsgPrimitive3D*>(in));
	4035	// this data structure is not used yet, so there is no code generated to fill its members
	4036	return base;
	4037	}
	4038	// -----------------------------------------------------------------------------------------------------------
	4039	template <> size_t GenericFill<IfcDamperType>(const DB& db, const LIST& params, IfcDamperType* in)
	4040	{
	4041	size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
	4042	// this data structure is not used yet, so there is no code generated to fill its members
	4043	return base;
	4044	}
	4045	// -----------------------------------------------------------------------------------------------------------
	4046	template <> size_t GenericFill<IfcProjectOrderRecord>(const DB& db, const LIST& params, IfcProjectOrderRecord* in)
	4047	{
	4048	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	4049	// this data structure is not used yet, so there is no code generated to fill its members
	4050	return base;
	4051	}
	4052	// -----------------------------------------------------------------------------------------------------------
	4053	template <> size_t GenericFill<IfcDistributionChamberElement>(const DB& db, const LIST& params, IfcDistributionChamberElement* in)
	4054	{
	4055	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
	4056	// this data structure is not used yet, so there is no code generated to fill its members
	4057	return base;
	4058	}
	4059	// -----------------------------------------------------------------------------------------------------------
	4060	template <> size_t GenericFill<IfcMechanicalFastener>(const DB& db, const LIST& params, IfcMechanicalFastener* in)
	4061	{
	4062	size_t base = GenericFill(db,params,static_cast<IfcFastener*>(in));
	4063	// this data structure is not used yet, so there is no code generated to fill its members
	4064	return base;
	4065	}
	4066	// -----------------------------------------------------------------------------------------------------------
	4067	template <> size_t GenericFill<IfcRectangularTrimmedSurface>(const DB& db, const LIST& params, IfcRectangularTrimmedSurface* in)
	4068	{
	4069	size_t base = GenericFill(db,params,static_cast<IfcBoundedSurface*>(in));
	4070	// this data structure is not used yet, so there is no code generated to fill its members
	4071	return base;
	4072	}
	4073	// -----------------------------------------------------------------------------------------------------------
	4074	template <> size_t GenericFill<IfcZone>(const DB& db, const LIST& params, IfcZone* in)
	4075	{
	4076	size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
	4077	// this data structure is not used yet, so there is no code generated to fill its members
	4078	return base;
	4079	}
	4080	// -----------------------------------------------------------------------------------------------------------
	4081	template <> size_t GenericFill<IfcFanType>(const DB& db, const LIST& params, IfcFanType* in)
	4082	{
	4083	size_t base = GenericFill(db,params,static_cast<IfcFlowMovingDeviceType*>(in));
	4084	// this data structure is not used yet, so there is no code generated to fill its members
	4085	return base;
	4086	}
	4087	// -----------------------------------------------------------------------------------------------------------
	4088	template <> size_t GenericFill<IfcGeometricSet>(const DB& db, const LIST& params, IfcGeometricSet* in)
	4089	{
	4090	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	4091	// this data structure is not used yet, so there is no code generated to fill its members
	4092	return base;
	4093	}
	4094	// -----------------------------------------------------------------------------------------------------------
	4095	template <> size_t GenericFill<IfcFillAreaStyleTiles>(const DB& db, const LIST& params, IfcFillAreaStyleTiles* in)
	4096	{
	4097	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	4098	// this data structure is not used yet, so there is no code generated to fill its members
	4099	return base;
	4100	}
	4101	// -----------------------------------------------------------------------------------------------------------
	4102	template <> size_t GenericFill<IfcCableSegmentType>(const DB& db, const LIST& params, IfcCableSegmentType* in)
	4103	{
	4104	size_t base = GenericFill(db,params,static_cast<IfcFlowSegmentType*>(in));
	4105	// this data structure is not used yet, so there is no code generated to fill its members
	4106	return base;
	4107	}
	4108	// -----------------------------------------------------------------------------------------------------------
	4109	template <> size_t GenericFill<IfcRelOverridesProperties>(const DB& db, const LIST& params, IfcRelOverridesProperties* in)
	4110	{
	4111	size_t base = GenericFill(db,params,static_cast<IfcRelDefinesByProperties*>(in));
	4112	// this data structure is not used yet, so there is no code generated to fill its members
	4113	return base;
	4114	}
	4115	// -----------------------------------------------------------------------------------------------------------
	4116	template <> size_t GenericFill<IfcMeasureWithUnit>(const DB& db, const LIST& params, IfcMeasureWithUnit* in)
	4117	{
	4118	size_t base = 0;
	4119	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcMeasureWithUnit"); } do { // convert the 'ValueComponent' argument
	4120	boost::shared_ptr<const DataType> arg = params[base++];
	4121	try { GenericConvert( in->ValueComponent, arg, db ); break; }
	4122	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcMeasureWithUnit to be a `IfcValue`")); }
	4123	} while(0);
	4124	do { // convert the 'UnitComponent' argument
	4125	boost::shared_ptr<const DataType> arg = params[base++];
	4126	try { GenericConvert( in->UnitComponent, arg, db ); break; }
	4127	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcMeasureWithUnit to be a `IfcUnit`")); }
	4128	} while(0);
	4129	return base;
	4130	}
	4131	// -----------------------------------------------------------------------------------------------------------
	4132	template <> size_t GenericFill<IfcSlabType>(const DB& db, const LIST& params, IfcSlabType* in)
	4133	{
	4134	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	4135	// this data structure is not used yet, so there is no code generated to fill its members
	4136	return base;
	4137	}
	4138	// -----------------------------------------------------------------------------------------------------------
	4139	template <> size_t GenericFill<IfcServiceLife>(const DB& db, const LIST& params, IfcServiceLife* in)
	4140	{
	4141	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	4142	// this data structure is not used yet, so there is no code generated to fill its members
	4143	return base;
	4144	}
	4145	// -----------------------------------------------------------------------------------------------------------
	4146	template <> size_t GenericFill<IfcFurnitureType>(const DB& db, const LIST& params, IfcFurnitureType* in)
	4147	{
	4148	size_t base = GenericFill(db,params,static_cast<IfcFurnishingElementType*>(in));
	4149	// this data structure is not used yet, so there is no code generated to fill its members
	4150	return base;
	4151	}
	4152	// -----------------------------------------------------------------------------------------------------------
	4153	template <> size_t GenericFill<IfcCostItem>(const DB& db, const LIST& params, IfcCostItem* in)
	4154	{
	4155	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
	4156	// this data structure is not used yet, so there is no code generated to fill its members
	4157	return base;
	4158	}
	4159	// -----------------------------------------------------------------------------------------------------------
	4160	template <> size_t GenericFill<IfcReinforcingMesh>(const DB& db, const LIST& params, IfcReinforcingMesh* in)
	4161	{
	4162	size_t base = GenericFill(db,params,static_cast<IfcReinforcingElement*>(in));
	4163	// this data structure is not used yet, so there is no code generated to fill its members
	4164	return base;
	4165	}
	4166	// -----------------------------------------------------------------------------------------------------------
	4167	template <> size_t GenericFill<IfcFacetedBrepWithVoids>(const DB& db, const LIST& params, IfcFacetedBrepWithVoids* in)
	4168	{
	4169	size_t base = GenericFill(db,params,static_cast<IfcManifoldSolidBrep*>(in));
	4170	// this data structure is not used yet, so there is no code generated to fill its members
	4171	return base;
	4172	}
	4173	// -----------------------------------------------------------------------------------------------------------
	4174	template <> size_t GenericFill<IfcGasTerminalType>(const DB& db, const LIST& params, IfcGasTerminalType* in)
	4175	{
	4176	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	4177	// this data structure is not used yet, so there is no code generated to fill its members
	4178	return base;
	4179	}
	4180	// -----------------------------------------------------------------------------------------------------------
	4181	template <> size_t GenericFill<IfcPile>(const DB& db, const LIST& params, IfcPile* in)
	4182	{
	4183	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	4184	// this data structure is not used yet, so there is no code generated to fill its members
	4185	return base;
	4186	}
	4187	// -----------------------------------------------------------------------------------------------------------
	4188	template <> size_t GenericFill<IfcFillAreaStyleTileSymbolWithStyle>(const DB& db, const LIST& params, IfcFillAreaStyleTileSymbolWithStyle* in)
	4189	{
	4190	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	4191	// this data structure is not used yet, so there is no code generated to fill its members
	4192	return base;
	4193	}
	4194	// -----------------------------------------------------------------------------------------------------------
	4195	template <> size_t GenericFill<IfcConstructionMaterialResource>(const DB& db, const LIST& params, IfcConstructionMaterialResource* in)
	4196	{
	4197	size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
	4198	// this data structure is not used yet, so there is no code generated to fill its members
	4199	return base;
	4200	}
	4201	// -----------------------------------------------------------------------------------------------------------
	4202	template <> size_t GenericFill<IfcAnnotationCurveOccurrence>(const DB& db, const LIST& params, IfcAnnotationCurveOccurrence* in)
	4203	{
	4204	size_t base = GenericFill(db,params,static_cast<IfcAnnotationOccurrence*>(in));
	4205	// this data structure is not used yet, so there is no code generated to fill its members
	4206	return base;
	4207	}
	4208	// -----------------------------------------------------------------------------------------------------------
	4209	template <> size_t GenericFill<IfcDimensionCurve>(const DB& db, const LIST& params, IfcDimensionCurve* in)
	4210	{
	4211	size_t base = GenericFill(db,params,static_cast<IfcAnnotationCurveOccurrence*>(in));
	4212	// this data structure is not used yet, so there is no code generated to fill its members
	4213	return base;
	4214	}
	4215	// -----------------------------------------------------------------------------------------------------------
	4216	template <> size_t GenericFill<IfcGeometricCurveSet>(const DB& db, const LIST& params, IfcGeometricCurveSet* in)
	4217	{
	4218	size_t base = GenericFill(db,params,static_cast<IfcGeometricSet*>(in));
	4219	// this data structure is not used yet, so there is no code generated to fill its members
	4220	return base;
	4221	}
	4222	// -----------------------------------------------------------------------------------------------------------
	4223	template <> size_t GenericFill<IfcRelAggregates>(const DB& db, const LIST& params, IfcRelAggregates* in)
	4224	{
	4225	size_t base = GenericFill(db,params,static_cast<IfcRelDecomposes*>(in));
	4226	if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelAggregates"); } return base;
	4227	}
	4228	// -----------------------------------------------------------------------------------------------------------
	4229	template <> size_t GenericFill<IfcFaceBasedSurfaceModel>(const DB& db, const LIST& params, IfcFaceBasedSurfaceModel* in)
	4230	{
	4231	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	4232	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcFaceBasedSurfaceModel"); } do { // convert the 'FbsmFaces' argument
	4233	boost::shared_ptr<const DataType> arg = params[base++];
	4234	try { GenericConvert( in->FbsmFaces, arg, db ); break; }
	4235	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcFaceBasedSurfaceModel to be a `SET [1:?] OF IfcConnectedFaceSet`")); }
	4236	} while(0);
	4237	return base;
	4238	}
	4239	// -----------------------------------------------------------------------------------------------------------
	4240	template <> size_t GenericFill<IfcEnergyConversionDevice>(const DB& db, const LIST& params, IfcEnergyConversionDevice* in)
	4241	{
	4242	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
	4243	// this data structure is not used yet, so there is no code generated to fill its members
	4244	return base;
	4245	}
	4246	// -----------------------------------------------------------------------------------------------------------
	4247	template <> size_t GenericFill<IfcRampFlight>(const DB& db, const LIST& params, IfcRampFlight* in)
	4248	{
	4249	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	4250	// this data structure is not used yet, so there is no code generated to fill its members
	4251	return base;
	4252	}
	4253	// -----------------------------------------------------------------------------------------------------------
	4254	template <> size_t GenericFill<IfcVertexLoop>(const DB& db, const LIST& params, IfcVertexLoop* in)
	4255	{
	4256	size_t base = GenericFill(db,params,static_cast<IfcLoop*>(in));
	4257	// this data structure is not used yet, so there is no code generated to fill its members
	4258	return base;
	4259	}
	4260	// -----------------------------------------------------------------------------------------------------------
	4261	template <> size_t GenericFill<IfcPlate>(const DB& db, const LIST& params, IfcPlate* in)
	4262	{
	4263	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	4264	// this data structure is not used yet, so there is no code generated to fill its members
	4265	return base;
	4266	}
	4267	// -----------------------------------------------------------------------------------------------------------
	4268	template <> size_t GenericFill<IfcUShapeProfileDef>(const DB& db, const LIST& params, IfcUShapeProfileDef* in)
	4269	{
	4270	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	4271	// this data structure is not used yet, so there is no code generated to fill its members
1727	4272	return base;
1728	4273	}
1729	4274	// -----------------------------------------------------------------------------------------------------------

1751	4296	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcFaceOuterBound"); } return base;
1752	4297	}
1753	4298	// -----------------------------------------------------------------------------------------------------------
1754		template <> size_t GenericFill<IfcFeatureElementAddition>(const DB& db, const LIST& params, IfcFeatureElementAddition* in)
1755		{
1756		size_t base = GenericFill(db,params,static_cast<IfcFeatureElement*>(in));
1757		// this data structure is not used yet, so there is no code generated to fill its members
1758		return base;
1759		}
1760		// -----------------------------------------------------------------------------------------------------------
1761		template <> size_t GenericFill<IfcNamedUnit>(const DB& db, const LIST& params, IfcNamedUnit* in)
	4299	template <> size_t GenericFill<IfcOneDirectionRepeatFactor>(const DB& db, const LIST& params, IfcOneDirectionRepeatFactor* in)
	4300	{
	4301	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	4302	// this data structure is not used yet, so there is no code generated to fill its members
	4303	return base;
	4304	}
	4305	// -----------------------------------------------------------------------------------------------------------
	4306	template <> size_t GenericFill<IfcBoilerType>(const DB& db, const LIST& params, IfcBoilerType* in)
	4307	{
	4308	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	4309	// this data structure is not used yet, so there is no code generated to fill its members
	4310	return base;
	4311	}
	4312	// -----------------------------------------------------------------------------------------------------------
	4313	template <> size_t GenericFill<IfcConstructionEquipmentResource>(const DB& db, const LIST& params, IfcConstructionEquipmentResource* in)
	4314	{
	4315	size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
	4316	// this data structure is not used yet, so there is no code generated to fill its members
	4317	return base;
	4318	}
	4319	// -----------------------------------------------------------------------------------------------------------
	4320	template <> size_t GenericFill<IfcComplexProperty>(const DB& db, const LIST& params, IfcComplexProperty* in)
	4321	{
	4322	size_t base = GenericFill(db,params,static_cast<IfcProperty*>(in));
	4323	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcComplexProperty"); } do { // convert the 'UsageName' argument
	4324	boost::shared_ptr<const DataType> arg = params[base++];
	4325	try { GenericConvert( in->UsageName, arg, db ); break; }
	4326	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcComplexProperty to be a `IfcIdentifier`")); }
	4327	} while(0);
	4328	do { // convert the 'HasProperties' argument
	4329	boost::shared_ptr<const DataType> arg = params[base++];
	4330	try { GenericConvert( in->HasProperties, arg, db ); break; }
	4331	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcComplexProperty to be a `SET [1:?] OF IfcProperty`")); }
	4332	} while(0);
	4333	return base;
	4334	}
	4335	// -----------------------------------------------------------------------------------------------------------
	4336	template <> size_t GenericFill<IfcFooting>(const DB& db, const LIST& params, IfcFooting* in)
	4337	{
	4338	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	4339	// this data structure is not used yet, so there is no code generated to fill its members
	4340	return base;
	4341	}
	4342	// -----------------------------------------------------------------------------------------------------------
	4343	template <> size_t GenericFill<IfcConstructionProductResource>(const DB& db, const LIST& params, IfcConstructionProductResource* in)
	4344	{
	4345	size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
	4346	// this data structure is not used yet, so there is no code generated to fill its members
	4347	return base;
	4348	}
	4349	// -----------------------------------------------------------------------------------------------------------
	4350	template <> size_t GenericFill<IfcDerivedProfileDef>(const DB& db, const LIST& params, IfcDerivedProfileDef* in)
	4351	{
	4352	size_t base = GenericFill(db,params,static_cast<IfcProfileDef*>(in));
	4353	// this data structure is not used yet, so there is no code generated to fill its members
	4354	return base;
	4355	}
	4356	// -----------------------------------------------------------------------------------------------------------
	4357	template <> size_t GenericFill<IfcPropertyTableValue>(const DB& db, const LIST& params, IfcPropertyTableValue* in)
	4358	{
	4359	size_t base = GenericFill(db,params,static_cast<IfcSimpleProperty*>(in));
	4360	// this data structure is not used yet, so there is no code generated to fill its members
	4361	return base;
	4362	}
	4363	// -----------------------------------------------------------------------------------------------------------
	4364	template <> size_t GenericFill<IfcFlowMeterType>(const DB& db, const LIST& params, IfcFlowMeterType* in)
	4365	{
	4366	size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
	4367	// this data structure is not used yet, so there is no code generated to fill its members
	4368	return base;
	4369	}
	4370	// -----------------------------------------------------------------------------------------------------------
	4371	template <> size_t GenericFill<IfcDoorStyle>(const DB& db, const LIST& params, IfcDoorStyle* in)
	4372	{
	4373	size_t base = GenericFill(db,params,static_cast<IfcTypeProduct*>(in));
	4374	// this data structure is not used yet, so there is no code generated to fill its members
	4375	return base;
	4376	}
	4377	// -----------------------------------------------------------------------------------------------------------
	4378	template <> size_t GenericFill<IfcUnitAssignment>(const DB& db, const LIST& params, IfcUnitAssignment* in)
1762	4379	{
1763	4380	size_t base = 0;
1764		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcNamedUnit"); } do { // convert the 'Dimensions' argument
1765		boost::shared_ptr<const DataType> arg = params[base++];
1766		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcNamedUnit,2>::aux_is_derived[0]=true; break; }
1767		try { GenericConvert( in->Dimensions, arg, db ); break; }
1768		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcNamedUnit to be a `IfcDimensionalExponents`")); }
1769		} while(0);
1770		do { // convert the 'UnitType' argument
1771		boost::shared_ptr<const DataType> arg = params[base++];
1772		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcNamedUnit,2>::aux_is_derived[1]=true; break; }
1773		try { GenericConvert( in->UnitType, arg, db ); break; }
1774		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcNamedUnit to be a `IfcUnitEnum`")); }
1775		} while(0);
	4381	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcUnitAssignment"); } do { // convert the 'Units' argument
	4382	boost::shared_ptr<const DataType> arg = params[base++];
	4383	try { GenericConvert( in->Units, arg, db ); break; }
	4384	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcUnitAssignment to be a `SET [1:?] OF IfcUnit`")); }
	4385	} while(0);
	4386	return base;
	4387	}
	4388	// -----------------------------------------------------------------------------------------------------------
	4389	template <> size_t GenericFill<IfcFlowTerminal>(const DB& db, const LIST& params, IfcFlowTerminal* in)
	4390	{
	4391	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
	4392	// this data structure is not used yet, so there is no code generated to fill its members
	4393	return base;
	4394	}
	4395	// -----------------------------------------------------------------------------------------------------------
	4396	template <> size_t GenericFill<IfcCraneRailFShapeProfileDef>(const DB& db, const LIST& params, IfcCraneRailFShapeProfileDef* in)
	4397	{
	4398	size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
	4399	// this data structure is not used yet, so there is no code generated to fill its members
	4400	return base;
	4401	}
	4402	// -----------------------------------------------------------------------------------------------------------
	4403	template <> size_t GenericFill<IfcFlowSegment>(const DB& db, const LIST& params, IfcFlowSegment* in)
	4404	{
	4405	size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
	4406	// this data structure is not used yet, so there is no code generated to fill its members
	4407	return base;
	4408	}
	4409	// -----------------------------------------------------------------------------------------------------------
	4410	template <> size_t GenericFill<IfcElementQuantity>(const DB& db, const LIST& params, IfcElementQuantity* in)
	4411	{
	4412	size_t base = GenericFill(db,params,static_cast<IfcPropertySetDefinition*>(in));
	4413	if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcElementQuantity"); } do { // convert the 'MethodOfMeasurement' argument
	4414	boost::shared_ptr<const DataType> arg = params[base++];
	4415	if (dynamic_cast<const UNSET>(&arg)) break;
	4416	try { GenericConvert( in->MethodOfMeasurement, arg, db ); break; }
	4417	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcElementQuantity to be a `IfcLabel`")); }
	4418	} while(0);
	4419	do { // convert the 'Quantities' argument
	4420	boost::shared_ptr<const DataType> arg = params[base++];
	4421	try { GenericConvert( in->Quantities, arg, db ); break; }
	4422	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcElementQuantity to be a `SET [1:?] OF IfcPhysicalQuantity`")); }
	4423	} while(0);
	4424	return base;
	4425	}
	4426	// -----------------------------------------------------------------------------------------------------------
	4427	template <> size_t GenericFill<IfcCurtainWall>(const DB& db, const LIST& params, IfcCurtainWall* in)
	4428	{
	4429	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	4430	// this data structure is not used yet, so there is no code generated to fill its members
	4431	return base;
	4432	}
	4433	// -----------------------------------------------------------------------------------------------------------
	4434	template <> size_t GenericFill<IfcDiscreteAccessory>(const DB& db, const LIST& params, IfcDiscreteAccessory* in)
	4435	{
	4436	size_t base = GenericFill(db,params,static_cast<IfcElementComponent*>(in));
	4437	// this data structure is not used yet, so there is no code generated to fill its members
	4438	return base;
	4439	}
	4440	// -----------------------------------------------------------------------------------------------------------
	4441	template <> size_t GenericFill<IfcGrid>(const DB& db, const LIST& params, IfcGrid* in)
	4442	{
	4443	size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
	4444	// this data structure is not used yet, so there is no code generated to fill its members
	4445	return base;
	4446	}
	4447	// -----------------------------------------------------------------------------------------------------------
	4448	template <> size_t GenericFill<IfcSanitaryTerminalType>(const DB& db, const LIST& params, IfcSanitaryTerminalType* in)
	4449	{
	4450	size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
	4451	// this data structure is not used yet, so there is no code generated to fill its members
	4452	return base;
	4453	}
	4454	// -----------------------------------------------------------------------------------------------------------
	4455	template <> size_t GenericFill<IfcSubedge>(const DB& db, const LIST& params, IfcSubedge* in)
	4456	{
	4457	size_t base = GenericFill(db,params,static_cast<IfcEdge*>(in));
	4458	// this data structure is not used yet, so there is no code generated to fill its members
	4459	return base;
	4460	}
	4461	// -----------------------------------------------------------------------------------------------------------
	4462	template <> size_t GenericFill<IfcFilterType>(const DB& db, const LIST& params, IfcFilterType* in)
	4463	{
	4464	size_t base = GenericFill(db,params,static_cast<IfcFlowTreatmentDeviceType*>(in));
	4465	// this data structure is not used yet, so there is no code generated to fill its members
	4466	return base;
	4467	}
	4468	// -----------------------------------------------------------------------------------------------------------
	4469	template <> size_t GenericFill<IfcTendon>(const DB& db, const LIST& params, IfcTendon* in)
	4470	{
	4471	size_t base = GenericFill(db,params,static_cast<IfcReinforcingElement*>(in));
	4472	// this data structure is not used yet, so there is no code generated to fill its members
	4473	return base;
	4474	}
	4475	// -----------------------------------------------------------------------------------------------------------
	4476	template <> size_t GenericFill<IfcStructuralLoadGroup>(const DB& db, const LIST& params, IfcStructuralLoadGroup* in)
	4477	{
	4478	size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
	4479	// this data structure is not used yet, so there is no code generated to fill its members
	4480	return base;
	4481	}
	4482	// -----------------------------------------------------------------------------------------------------------
	4483	template <> size_t GenericFill<IfcPresentationStyleAssignment>(const DB& db, const LIST& params, IfcPresentationStyleAssignment* in)
	4484	{
	4485	size_t base = 0;
	4486	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPresentationStyleAssignment"); } do { // convert the 'Styles' argument
	4487	boost::shared_ptr<const DataType> arg = params[base++];
	4488	try { GenericConvert( in->Styles, arg, db ); break; }
	4489	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcPresentationStyleAssignment to be a `SET [1:?] OF IfcPresentationStyleSelect`")); }
	4490	} while(0);
	4491	return base;
	4492	}
	4493	// -----------------------------------------------------------------------------------------------------------
	4494	template <> size_t GenericFill<IfcStructuralCurveMember>(const DB& db, const LIST& params, IfcStructuralCurveMember* in)
	4495	{
	4496	size_t base = GenericFill(db,params,static_cast<IfcStructuralMember*>(in));
	4497	// this data structure is not used yet, so there is no code generated to fill its members
	4498	return base;
	4499	}
	4500	// -----------------------------------------------------------------------------------------------------------
	4501	template <> size_t GenericFill<IfcLightSourceAmbient>(const DB& db, const LIST& params, IfcLightSourceAmbient* in)
	4502	{
	4503	size_t base = GenericFill(db,params,static_cast<IfcLightSource*>(in));
	4504	// this data structure is not used yet, so there is no code generated to fill its members
	4505	return base;
	4506	}
	4507	// -----------------------------------------------------------------------------------------------------------
	4508	template <> size_t GenericFill<IfcCondition>(const DB& db, const LIST& params, IfcCondition* in)
	4509	{
	4510	size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
	4511	// this data structure is not used yet, so there is no code generated to fill its members
	4512	return base;
	4513	}
	4514	// -----------------------------------------------------------------------------------------------------------
	4515	template <> size_t GenericFill<IfcPort>(const DB& db, const LIST& params, IfcPort* in)
	4516	{
	4517	size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
	4518	// this data structure is not used yet, so there is no code generated to fill its members
	4519	return base;
	4520	}
	4521	// -----------------------------------------------------------------------------------------------------------
	4522	template <> size_t GenericFill<IfcSpace>(const DB& db, const LIST& params, IfcSpace* in)
	4523	{
	4524	size_t base = GenericFill(db,params,static_cast<IfcSpatialStructureElement*>(in));
	4525	if (params.GetSize() < 11) { throw STEP::TypeError("expected 11 arguments to IfcSpace"); } do { // convert the 'InteriorOrExteriorSpace' argument
	4526	boost::shared_ptr<const DataType> arg = params[base++];
	4527	try { GenericConvert( in->InteriorOrExteriorSpace, arg, db ); break; }
	4528	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 9 to IfcSpace to be a `IfcInternalOrExternalEnum`")); }
	4529	} while(0);
	4530	do { // convert the 'ElevationWithFlooring' argument
	4531	boost::shared_ptr<const DataType> arg = params[base++];
	4532	if (dynamic_cast<const UNSET>(&arg)) break;
	4533	try { GenericConvert( in->ElevationWithFlooring, arg, db ); break; }
	4534	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 10 to IfcSpace to be a `IfcLengthMeasure`")); }
	4535	} while(0);
	4536	return base;
	4537	}
	4538	// -----------------------------------------------------------------------------------------------------------
	4539	template <> size_t GenericFill<IfcHeatExchangerType>(const DB& db, const LIST& params, IfcHeatExchangerType* in)
	4540	{
	4541	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	4542	// this data structure is not used yet, so there is no code generated to fill its members
	4543	return base;
	4544	}
	4545	// -----------------------------------------------------------------------------------------------------------
	4546	template <> size_t GenericFill<IfcTankType>(const DB& db, const LIST& params, IfcTankType* in)
	4547	{
	4548	size_t base = GenericFill(db,params,static_cast<IfcFlowStorageDeviceType*>(in));
	4549	// this data structure is not used yet, so there is no code generated to fill its members
	4550	return base;
	4551	}
	4552	// -----------------------------------------------------------------------------------------------------------
	4553	template <> size_t GenericFill<IfcInventory>(const DB& db, const LIST& params, IfcInventory* in)
	4554	{
	4555	size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
	4556	// this data structure is not used yet, so there is no code generated to fill its members
	4557	return base;
	4558	}
	4559	// -----------------------------------------------------------------------------------------------------------
	4560	template <> size_t GenericFill<IfcTransportElementType>(const DB& db, const LIST& params, IfcTransportElementType* in)
	4561	{
	4562	size_t base = GenericFill(db,params,static_cast<IfcElementType*>(in));
	4563	// this data structure is not used yet, so there is no code generated to fill its members
	4564	return base;
	4565	}
	4566	// -----------------------------------------------------------------------------------------------------------
	4567	template <> size_t GenericFill<IfcAirToAirHeatRecoveryType>(const DB& db, const LIST& params, IfcAirToAirHeatRecoveryType* in)
	4568	{
	4569	size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
	4570	// this data structure is not used yet, so there is no code generated to fill its members
	4571	return base;
	4572	}
	4573	// -----------------------------------------------------------------------------------------------------------
	4574	template <> size_t GenericFill<IfcStairFlight>(const DB& db, const LIST& params, IfcStairFlight* in)
	4575	{
	4576	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	4577	// this data structure is not used yet, so there is no code generated to fill its members
	4578	return base;
	4579	}
	4580	// -----------------------------------------------------------------------------------------------------------
	4581	template <> size_t GenericFill<IfcElectricalElement>(const DB& db, const LIST& params, IfcElectricalElement* in)
	4582	{
	4583	size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
	4584	// this data structure is not used yet, so there is no code generated to fill its members
	4585	return base;
	4586	}
	4587	// -----------------------------------------------------------------------------------------------------------
	4588	template <> size_t GenericFill<IfcSurfaceStyleWithTextures>(const DB& db, const LIST& params, IfcSurfaceStyleWithTextures* in)
	4589	{
	4590	size_t base = 0;
	4591	if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcSurfaceStyleWithTextures"); } do { // convert the 'Textures' argument
	4592	boost::shared_ptr<const DataType> arg = params[base++];
	4593	try { GenericConvert( in->Textures, arg, db ); break; }
	4594	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcSurfaceStyleWithTextures to be a `LIST [1:?] OF IfcSurfaceTexture`")); }
	4595	} while(0);
	4596	return base;
	4597	}
	4598	// -----------------------------------------------------------------------------------------------------------
	4599	template <> size_t GenericFill<IfcBoundingBox>(const DB& db, const LIST& params, IfcBoundingBox* in)
	4600	{
	4601	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	4602	if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcBoundingBox"); } do { // convert the 'Corner' argument
	4603	boost::shared_ptr<const DataType> arg = params[base++];
	4604	try { GenericConvert( in->Corner, arg, db ); break; }
	4605	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcBoundingBox to be a `IfcCartesianPoint`")); }
	4606	} while(0);
	4607	do { // convert the 'XDim' argument
	4608	boost::shared_ptr<const DataType> arg = params[base++];
	4609	try { GenericConvert( in->XDim, arg, db ); break; }
	4610	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcBoundingBox to be a `IfcPositiveLengthMeasure`")); }
	4611	} while(0);
	4612	do { // convert the 'YDim' argument
	4613	boost::shared_ptr<const DataType> arg = params[base++];
	4614	try { GenericConvert( in->YDim, arg, db ); break; }
	4615	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcBoundingBox to be a `IfcPositiveLengthMeasure`")); }
	4616	} while(0);
	4617	do { // convert the 'ZDim' argument
	4618	boost::shared_ptr<const DataType> arg = params[base++];
	4619	try { GenericConvert( in->ZDim, arg, db ); break; }
	4620	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcBoundingBox to be a `IfcPositiveLengthMeasure`")); }
	4621	} while(0);
	4622	return base;
	4623	}
	4624	// -----------------------------------------------------------------------------------------------------------
	4625	template <> size_t GenericFill<IfcWallType>(const DB& db, const LIST& params, IfcWallType* in)
	4626	{
	4627	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	4628	// this data structure is not used yet, so there is no code generated to fill its members
	4629	return base;
	4630	}
	4631	// -----------------------------------------------------------------------------------------------------------
	4632	template <> size_t GenericFill<IfcMove>(const DB& db, const LIST& params, IfcMove* in)
	4633	{
	4634	size_t base = GenericFill(db,params,static_cast<IfcTask*>(in));
	4635	// this data structure is not used yet, so there is no code generated to fill its members
	4636	return base;
	4637	}
	4638	// -----------------------------------------------------------------------------------------------------------
	4639	template <> size_t GenericFill<IfcCircle>(const DB& db, const LIST& params, IfcCircle* in)
	4640	{
	4641	size_t base = GenericFill(db,params,static_cast<IfcConic*>(in));
	4642	if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcCircle"); } do { // convert the 'Radius' argument
	4643	boost::shared_ptr<const DataType> arg = params[base++];
	4644	try { GenericConvert( in->Radius, arg, db ); break; }
	4645	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcCircle to be a `IfcPositiveLengthMeasure`")); }
	4646	} while(0);
	4647	return base;
	4648	}
	4649	// -----------------------------------------------------------------------------------------------------------
	4650	template <> size_t GenericFill<IfcOffsetCurve2D>(const DB& db, const LIST& params, IfcOffsetCurve2D* in)
	4651	{
	4652	size_t base = GenericFill(db,params,static_cast<IfcCurve*>(in));
	4653	// this data structure is not used yet, so there is no code generated to fill its members
	4654	return base;
	4655	}
	4656	// -----------------------------------------------------------------------------------------------------------
	4657	template <> size_t GenericFill<IfcPointOnCurve>(const DB& db, const LIST& params, IfcPointOnCurve* in)
	4658	{
	4659	size_t base = GenericFill(db,params,static_cast<IfcPoint*>(in));
	4660	// this data structure is not used yet, so there is no code generated to fill its members
	4661	return base;
	4662	}
	4663	// -----------------------------------------------------------------------------------------------------------
	4664	template <> size_t GenericFill<IfcStructuralResultGroup>(const DB& db, const LIST& params, IfcStructuralResultGroup* in)
	4665	{
	4666	size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
	4667	// this data structure is not used yet, so there is no code generated to fill its members
	4668	return base;
	4669	}
	4670	// -----------------------------------------------------------------------------------------------------------
	4671	template <> size_t GenericFill<IfcSectionedSpine>(const DB& db, const LIST& params, IfcSectionedSpine* in)
	4672	{
	4673	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
	4674	// this data structure is not used yet, so there is no code generated to fill its members
	4675	return base;
	4676	}
	4677	// -----------------------------------------------------------------------------------------------------------
	4678	template <> size_t GenericFill<IfcSlab>(const DB& db, const LIST& params, IfcSlab* in)
	4679	{
	4680	size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
	4681	// this data structure is not used yet, so there is no code generated to fill its members
	4682	return base;
	4683	}
	4684	// -----------------------------------------------------------------------------------------------------------
	4685	template <> size_t GenericFill<IfcVertex>(const DB& db, const LIST& params, IfcVertex* in)
	4686	{
	4687	size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
	4688	// this data structure is not used yet, so there is no code generated to fill its members
	4689	return base;
	4690	}
	4691	// -----------------------------------------------------------------------------------------------------------
	4692	template <> size_t GenericFill<IfcVertexPoint>(const DB& db, const LIST& params, IfcVertexPoint* in)
	4693	{
	4694	size_t base = GenericFill(db,params,static_cast<IfcVertex*>(in));
	4695	// this data structure is not used yet, so there is no code generated to fill its members
	4696	return base;
	4697	}
	4698	// -----------------------------------------------------------------------------------------------------------
	4699	template <> size_t GenericFill<IfcStructuralLinearAction>(const DB& db, const LIST& params, IfcStructuralLinearAction* in)
	4700	{
	4701	size_t base = GenericFill(db,params,static_cast<IfcStructuralAction*>(in));
	4702	// this data structure is not used yet, so there is no code generated to fill its members
	4703	return base;
	4704	}
	4705	// -----------------------------------------------------------------------------------------------------------
	4706	template <> size_t GenericFill<IfcStructuralLinearActionVarying>(const DB& db, const LIST& params, IfcStructuralLinearActionVarying* in)
	4707	{
	4708	size_t base = GenericFill(db,params,static_cast<IfcStructuralLinearAction*>(in));
	4709	// this data structure is not used yet, so there is no code generated to fill its members
	4710	return base;
	4711	}
	4712	// -----------------------------------------------------------------------------------------------------------
	4713	template <> size_t GenericFill<IfcBuildingElementProxyType>(const DB& db, const LIST& params, IfcBuildingElementProxyType* in)
	4714	{
	4715	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	4716	// this data structure is not used yet, so there is no code generated to fill its members
	4717	return base;
	4718	}
	4719	// -----------------------------------------------------------------------------------------------------------
	4720	template <> size_t GenericFill<IfcProjectionElement>(const DB& db, const LIST& params, IfcProjectionElement* in)
	4721	{
	4722	size_t base = GenericFill(db,params,static_cast<IfcFeatureElementAddition*>(in));
	4723	// this data structure is not used yet, so there is no code generated to fill its members
1776	4724	return base;
1777	4725	}
1778	4726	// -----------------------------------------------------------------------------------------------------------

1792	4740	return base;
1793	4741	}
1794	4742	// -----------------------------------------------------------------------------------------------------------
1795		template <> size_t GenericFill<IfcHeatExchangerType>(const DB& db, const LIST& params, IfcHeatExchangerType* in)
1796		{
1797		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
1798		// this data structure is not used yet, so there is no code generated to fill its members
1799		return base;
1800		}
1801		// -----------------------------------------------------------------------------------------------------------
1802		template <> size_t GenericFill<IfcPresentationStyleAssignment>(const DB& db, const LIST& params, IfcPresentationStyleAssignment* in)
1803		{
1804		size_t base = 0;
1805		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPresentationStyleAssignment"); } do { // convert the 'Styles' argument
1806		boost::shared_ptr<const DataType> arg = params[base++];
1807		try { GenericConvert( in->Styles, arg, db ); break; }
1808		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcPresentationStyleAssignment to be a `SET [1:?] OF IfcPresentationStyleSelect`")); }
1809		} while(0);
1810		return base;
1811		}
1812		// -----------------------------------------------------------------------------------------------------------
1813		template <> size_t GenericFill<IfcFlowTreatmentDeviceType>(const DB& db, const LIST& params, IfcFlowTreatmentDeviceType* in)
1814		{
1815		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
1816		// this data structure is not used yet, so there is no code generated to fill its members
1817		return base;
1818		}
1819		// -----------------------------------------------------------------------------------------------------------
1820		template <> size_t GenericFill<IfcFilterType>(const DB& db, const LIST& params, IfcFilterType* in)
1821		{
1822		size_t base = GenericFill(db,params,static_cast<IfcFlowTreatmentDeviceType*>(in));
1823		// this data structure is not used yet, so there is no code generated to fill its members
1824		return base;
1825		}
1826		// -----------------------------------------------------------------------------------------------------------
1827		template <> size_t GenericFill<IfcResource>(const DB& db, const LIST& params, IfcResource* in)
1828		{
1829		size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
1830		// this data structure is not used yet, so there is no code generated to fill its members
1831		return base;
1832		}
1833		// -----------------------------------------------------------------------------------------------------------
1834		template <> size_t GenericFill<IfcEvaporativeCoolerType>(const DB& db, const LIST& params, IfcEvaporativeCoolerType* in)
1835		{
1836		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
1837		// this data structure is not used yet, so there is no code generated to fill its members
1838		return base;
1839		}
1840		// -----------------------------------------------------------------------------------------------------------
1841		template <> size_t GenericFill<IfcOffsetCurve2D>(const DB& db, const LIST& params, IfcOffsetCurve2D* in)
1842		{
1843		size_t base = GenericFill(db,params,static_cast<IfcCurve*>(in));
1844		// this data structure is not used yet, so there is no code generated to fill its members
1845		return base;
1846		}
1847		// -----------------------------------------------------------------------------------------------------------
1848		template <> size_t GenericFill<IfcEdge>(const DB& db, const LIST& params, IfcEdge* in)
1849		{
1850		size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
1851		// this data structure is not used yet, so there is no code generated to fill its members
1852		return base;
1853		}
1854		// -----------------------------------------------------------------------------------------------------------
1855		template <> size_t GenericFill<IfcSubedge>(const DB& db, const LIST& params, IfcSubedge* in)
1856		{
1857		size_t base = GenericFill(db,params,static_cast<IfcEdge*>(in));
1858		// this data structure is not used yet, so there is no code generated to fill its members
1859		return base;
1860		}
1861		// -----------------------------------------------------------------------------------------------------------
1862		template <> size_t GenericFill<IfcProxy>(const DB& db, const LIST& params, IfcProxy* in)
1863		{
1864		size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
1865		// this data structure is not used yet, so there is no code generated to fill its members
1866		return base;
1867		}
1868		// -----------------------------------------------------------------------------------------------------------
1869		template <> size_t GenericFill<IfcLine>(const DB& db, const LIST& params, IfcLine* in)
1870		{
1871		size_t base = GenericFill(db,params,static_cast<IfcCurve*>(in));
1872		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcLine"); } do { // convert the 'Pnt' argument
1873		boost::shared_ptr<const DataType> arg = params[base++];
1874		try { GenericConvert( in->Pnt, arg, db ); break; }
1875		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcLine to be a `IfcCartesianPoint`")); }
1876		} while(0);
1877		do { // convert the 'Dir' argument
1878		boost::shared_ptr<const DataType> arg = params[base++];
1879		try { GenericConvert( in->Dir, arg, db ); break; }
1880		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcLine to be a `IfcVector`")); }
1881		} while(0);
1882		return base;
1883		}
1884		// -----------------------------------------------------------------------------------------------------------
1885		template <> size_t GenericFill<IfcColumn>(const DB& db, const LIST& params, IfcColumn* in)
1886		{
1887		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
1888		// this data structure is not used yet, so there is no code generated to fill its members
1889		return base;
1890		}
1891		// -----------------------------------------------------------------------------------------------------------
1892		template <> size_t GenericFill<IfcObjectPlacement>(const DB& db, const LIST& params, IfcObjectPlacement* in)
1893		{
1894		size_t base = 0;
1895		return base;
1896		}
1897		// -----------------------------------------------------------------------------------------------------------
1898		template <> size_t GenericFill<IfcGridPlacement>(const DB& db, const LIST& params, IfcGridPlacement* in)
1899		{
1900		size_t base = GenericFill(db,params,static_cast<IfcObjectPlacement*>(in));
1901		// this data structure is not used yet, so there is no code generated to fill its members
1902		return base;
1903		}
1904		// -----------------------------------------------------------------------------------------------------------
1905		template <> size_t GenericFill<IfcDistributionControlElementType>(const DB& db, const LIST& params, IfcDistributionControlElementType* in)
1906		{
1907		size_t base = GenericFill(db,params,static_cast<IfcDistributionElementType*>(in));
1908		// this data structure is not used yet, so there is no code generated to fill its members
1909		return base;
1910		}
1911		// -----------------------------------------------------------------------------------------------------------
1912		template <> size_t GenericFill<IfcRelConnects>(const DB& db, const LIST& params, IfcRelConnects* in)
1913		{
1914		size_t base = GenericFill(db,params,static_cast<IfcRelationship*>(in));
1915		if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcRelConnects"); } return base;
1916		}
1917		// -----------------------------------------------------------------------------------------------------------
1918		template <> size_t GenericFill<IfcAnnotation>(const DB& db, const LIST& params, IfcAnnotation* in)
1919		{
1920		size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
1921		if (params.GetSize() < 7) { throw STEP::TypeError("expected 7 arguments to IfcAnnotation"); } return base;
1922		}
1923		// -----------------------------------------------------------------------------------------------------------
1924		template <> size_t GenericFill<IfcPlate>(const DB& db, const LIST& params, IfcPlate* in)
1925		{
1926		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
1927		// this data structure is not used yet, so there is no code generated to fill its members
1928		return base;
1929		}
1930		// -----------------------------------------------------------------------------------------------------------
1931		template <> size_t GenericFill<IfcSolidModel>(const DB& db, const LIST& params, IfcSolidModel* in)
	4743	template <> size_t GenericFill<IfcGeometricRepresentationSubContext>(const DB& db, const LIST& params, IfcGeometricRepresentationSubContext* in)
	4744	{
	4745	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationContext*>(in));
	4746	// this data structure is not used yet, so there is no code generated to fill its members
	4747	return base;
	4748	}
	4749	// -----------------------------------------------------------------------------------------------------------
	4750	template <> size_t GenericFill<IfcAnnotationSurfaceOccurrence>(const DB& db, const LIST& params, IfcAnnotationSurfaceOccurrence* in)
	4751	{
	4752	size_t base = GenericFill(db,params,static_cast<IfcAnnotationOccurrence*>(in));
	4753	// this data structure is not used yet, so there is no code generated to fill its members
	4754	return base;
	4755	}
	4756	// -----------------------------------------------------------------------------------------------------------
	4757	template <> size_t GenericFill<IfcRoundedEdgeFeature>(const DB& db, const LIST& params, IfcRoundedEdgeFeature* in)
	4758	{
	4759	size_t base = GenericFill(db,params,static_cast<IfcEdgeFeature*>(in));
	4760	// this data structure is not used yet, so there is no code generated to fill its members
	4761	return base;
	4762	}
	4763	// -----------------------------------------------------------------------------------------------------------
	4764	template <> size_t GenericFill<IfcElectricDistributionPoint>(const DB& db, const LIST& params, IfcElectricDistributionPoint* in)
	4765	{
	4766	size_t base = GenericFill(db,params,static_cast<IfcFlowController*>(in));
	4767	// this data structure is not used yet, so there is no code generated to fill its members
	4768	return base;
	4769	}
	4770	// -----------------------------------------------------------------------------------------------------------
	4771	template <> size_t GenericFill<IfcCableCarrierSegmentType>(const DB& db, const LIST& params, IfcCableCarrierSegmentType* in)
	4772	{
	4773	size_t base = GenericFill(db,params,static_cast<IfcFlowSegmentType*>(in));
	4774	// this data structure is not used yet, so there is no code generated to fill its members
	4775	return base;
	4776	}
	4777	// -----------------------------------------------------------------------------------------------------------
	4778	template <> size_t GenericFill<IfcWallStandardCase>(const DB& db, const LIST& params, IfcWallStandardCase* in)
	4779	{
	4780	size_t base = GenericFill(db,params,static_cast<IfcWall*>(in));
	4781	// this data structure is not used yet, so there is no code generated to fill its members
	4782	return base;
	4783	}
	4784	// -----------------------------------------------------------------------------------------------------------
	4785	template <> size_t GenericFill<IfcCsgSolid>(const DB& db, const LIST& params, IfcCsgSolid* in)
	4786	{
	4787	size_t base = GenericFill(db,params,static_cast<IfcSolidModel*>(in));
	4788	// this data structure is not used yet, so there is no code generated to fill its members
	4789	return base;
	4790	}
	4791	// -----------------------------------------------------------------------------------------------------------
	4792	template <> size_t GenericFill<IfcBeamType>(const DB& db, const LIST& params, IfcBeamType* in)
	4793	{
	4794	size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
	4795	// this data structure is not used yet, so there is no code generated to fill its members
	4796	return base;
	4797	}
	4798	// -----------------------------------------------------------------------------------------------------------
	4799	template <> size_t GenericFill<IfcAnnotationFillArea>(const DB& db, const LIST& params, IfcAnnotationFillArea* in)
1932	4800	{
1933	4801	size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
1934		return base;
1935		}
1936		// -----------------------------------------------------------------------------------------------------------
1937		template <> size_t GenericFill<IfcManifoldSolidBrep>(const DB& db, const LIST& params, IfcManifoldSolidBrep* in)
1938		{
1939		size_t base = GenericFill(db,params,static_cast<IfcSolidModel*>(in));
1940		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcManifoldSolidBrep"); } do { // convert the 'Outer' argument
1941		boost::shared_ptr<const DataType> arg = params[base++];
1942		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcManifoldSolidBrep,1>::aux_is_derived[0]=true; break; }
1943		try { GenericConvert( in->Outer, arg, db ); break; }
1944		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcManifoldSolidBrep to be a `IfcClosedShell`")); }
1945		} while(0);
1946		return base;
1947		}
1948		// -----------------------------------------------------------------------------------------------------------
1949		template <> size_t GenericFill<IfcFlowStorageDeviceType>(const DB& db, const LIST& params, IfcFlowStorageDeviceType* in)
1950		{
1951		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
1952		// this data structure is not used yet, so there is no code generated to fill its members
1953		return base;
1954		}
1955		// -----------------------------------------------------------------------------------------------------------
1956		template <> size_t GenericFill<IfcStructuralItem>(const DB& db, const LIST& params, IfcStructuralItem* in)
1957		{
1958		size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
1959		// this data structure is not used yet, so there is no code generated to fill its members
1960		return base;
1961		}
1962		// -----------------------------------------------------------------------------------------------------------
1963		template <> size_t GenericFill<IfcStructuralMember>(const DB& db, const LIST& params, IfcStructuralMember* in)
1964		{
1965		size_t base = GenericFill(db,params,static_cast<IfcStructuralItem*>(in));
1966		// this data structure is not used yet, so there is no code generated to fill its members
1967		return base;
1968		}
1969		// -----------------------------------------------------------------------------------------------------------
1970		template <> size_t GenericFill<IfcStructuralCurveMember>(const DB& db, const LIST& params, IfcStructuralCurveMember* in)
1971		{
1972		size_t base = GenericFill(db,params,static_cast<IfcStructuralMember*>(in));
1973		// this data structure is not used yet, so there is no code generated to fill its members
1974		return base;
1975		}
1976		// -----------------------------------------------------------------------------------------------------------
1977		template <> size_t GenericFill<IfcStructuralConnection>(const DB& db, const LIST& params, IfcStructuralConnection* in)
1978		{
1979		size_t base = GenericFill(db,params,static_cast<IfcStructuralItem*>(in));
1980		// this data structure is not used yet, so there is no code generated to fill its members
1981		return base;
1982		}
1983		// -----------------------------------------------------------------------------------------------------------
1984		template <> size_t GenericFill<IfcStructuralSurfaceConnection>(const DB& db, const LIST& params, IfcStructuralSurfaceConnection* in)
1985		{
1986		size_t base = GenericFill(db,params,static_cast<IfcStructuralConnection*>(in));
1987		// this data structure is not used yet, so there is no code generated to fill its members
1988		return base;
1989		}
1990		// -----------------------------------------------------------------------------------------------------------
1991		template <> size_t GenericFill<IfcCoilType>(const DB& db, const LIST& params, IfcCoilType* in)
1992		{
1993		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
1994		// this data structure is not used yet, so there is no code generated to fill its members
1995		return base;
1996		}
1997		// -----------------------------------------------------------------------------------------------------------
1998		template <> size_t GenericFill<IfcDuctFittingType>(const DB& db, const LIST& params, IfcDuctFittingType* in)
1999		{
2000		size_t base = GenericFill(db,params,static_cast<IfcFlowFittingType*>(in));
2001		// this data structure is not used yet, so there is no code generated to fill its members
2002		return base;
2003		}
2004		// -----------------------------------------------------------------------------------------------------------
2005		template <> size_t GenericFill<IfcStyledItem>(const DB& db, const LIST& params, IfcStyledItem* in)
2006		{
2007		size_t base = GenericFill(db,params,static_cast<IfcRepresentationItem*>(in));
2008		if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcStyledItem"); } do { // convert the 'Item' argument
2009		boost::shared_ptr<const DataType> arg = params[base++];
2010		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcStyledItem,3>::aux_is_derived[0]=true; break; }
2011		if (dynamic_cast<const UNSET>(&arg)) break;
2012		try { GenericConvert( in->Item, arg, db ); break; }
2013		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcStyledItem to be a `IfcRepresentationItem`")); }
2014		} while(0);
2015		do { // convert the 'Styles' argument
2016		boost::shared_ptr<const DataType> arg = params[base++];
2017		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcStyledItem,3>::aux_is_derived[1]=true; break; }
2018		try { GenericConvert( in->Styles, arg, db ); break; }
2019		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcStyledItem to be a `SET [1:?] OF IfcPresentationStyleAssignment`")); }
2020		} while(0);
2021		do { // convert the 'Name' argument
2022		boost::shared_ptr<const DataType> arg = params[base++];
2023		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcStyledItem,3>::aux_is_derived[2]=true; break; }
2024		if (dynamic_cast<const UNSET>(&arg)) break;
2025		try { GenericConvert( in->Name, arg, db ); break; }
2026		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcStyledItem to be a `IfcLabel`")); }
2027		} while(0);
2028		return base;
2029		}
2030		// -----------------------------------------------------------------------------------------------------------
2031		template <> size_t GenericFill<IfcAnnotationOccurrence>(const DB& db, const LIST& params, IfcAnnotationOccurrence* in)
2032		{
2033		size_t base = GenericFill(db,params,static_cast<IfcStyledItem*>(in));
2034		// this data structure is not used yet, so there is no code generated to fill its members
2035		return base;
2036		}
2037		// -----------------------------------------------------------------------------------------------------------
2038		template <> size_t GenericFill<IfcAnnotationCurveOccurrence>(const DB& db, const LIST& params, IfcAnnotationCurveOccurrence* in)
	4802	// this data structure is not used yet, so there is no code generated to fill its members
	4803	return base;
	4804	}
	4805	// -----------------------------------------------------------------------------------------------------------
	4806	template <> size_t GenericFill<IfcStructuralCurveMemberVarying>(const DB& db, const LIST& params, IfcStructuralCurveMemberVarying* in)
	4807	{
	4808	size_t base = GenericFill(db,params,static_cast<IfcStructuralCurveMember*>(in));
	4809	// this data structure is not used yet, so there is no code generated to fill its members
	4810	return base;
	4811	}
	4812	// -----------------------------------------------------------------------------------------------------------
	4813	template <> size_t GenericFill<IfcPointOnSurface>(const DB& db, const LIST& params, IfcPointOnSurface* in)
	4814	{
	4815	size_t base = GenericFill(db,params,static_cast<IfcPoint*>(in));
	4816	// this data structure is not used yet, so there is no code generated to fill its members
	4817	return base;
	4818	}
	4819	// -----------------------------------------------------------------------------------------------------------
	4820	template <> size_t GenericFill<IfcOrderAction>(const DB& db, const LIST& params, IfcOrderAction* in)
	4821	{
	4822	size_t base = GenericFill(db,params,static_cast<IfcTask*>(in));
	4823	// this data structure is not used yet, so there is no code generated to fill its members
	4824	return base;
	4825	}
	4826	// -----------------------------------------------------------------------------------------------------------
	4827	template <> size_t GenericFill<IfcEdgeLoop>(const DB& db, const LIST& params, IfcEdgeLoop* in)
	4828	{
	4829	size_t base = GenericFill(db,params,static_cast<IfcLoop*>(in));
	4830	// this data structure is not used yet, so there is no code generated to fill its members
	4831	return base;
	4832	}
	4833	// -----------------------------------------------------------------------------------------------------------
	4834	template <> size_t GenericFill<IfcAnnotationFillAreaOccurrence>(const DB& db, const LIST& params, IfcAnnotationFillAreaOccurrence* in)
2039	4835	{
2040	4836	size_t base = GenericFill(db,params,static_cast<IfcAnnotationOccurrence*>(in));
2041	4837	// this data structure is not used yet, so there is no code generated to fill its members
2042	4838	return base;
2043	4839	}
2044	4840	// -----------------------------------------------------------------------------------------------------------
2045		template <> size_t GenericFill<IfcDimensionCurve>(const DB& db, const LIST& params, IfcDimensionCurve* in)
	4841	template <> size_t GenericFill<IfcWorkPlan>(const DB& db, const LIST& params, IfcWorkPlan* in)
	4842	{
	4843	size_t base = GenericFill(db,params,static_cast<IfcWorkControl*>(in));
	4844	// this data structure is not used yet, so there is no code generated to fill its members
	4845	return base;
	4846	}
	4847	// -----------------------------------------------------------------------------------------------------------
	4848	template <> size_t GenericFill<IfcEllipse>(const DB& db, const LIST& params, IfcEllipse* in)
	4849	{
	4850	size_t base = GenericFill(db,params,static_cast<IfcConic*>(in));
	4851	if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcEllipse"); } do { // convert the 'SemiAxis1' argument
	4852	boost::shared_ptr<const DataType> arg = params[base++];
	4853	try { GenericConvert( in->SemiAxis1, arg, db ); break; }
	4854	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcEllipse to be a `IfcPositiveLengthMeasure`")); }
	4855	} while(0);
	4856	do { // convert the 'SemiAxis2' argument
	4857	boost::shared_ptr<const DataType> arg = params[base++];
	4858	try { GenericConvert( in->SemiAxis2, arg, db ); break; }
	4859	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcEllipse to be a `IfcPositiveLengthMeasure`")); }
	4860	} while(0);
	4861	return base;
	4862	}
	4863	// -----------------------------------------------------------------------------------------------------------
	4864	template <> size_t GenericFill<IfcProductDefinitionShape>(const DB& db, const LIST& params, IfcProductDefinitionShape* in)
	4865	{
	4866	size_t base = GenericFill(db,params,static_cast<IfcProductRepresentation*>(in));
	4867	// this data structure is not used yet, so there is no code generated to fill its members
	4868	return base;
	4869	}
	4870	// -----------------------------------------------------------------------------------------------------------
	4871	template <> size_t GenericFill<IfcProjectionCurve>(const DB& db, const LIST& params, IfcProjectionCurve* in)
2046	4872	{
2047	4873	size_t base = GenericFill(db,params,static_cast<IfcAnnotationCurveOccurrence*>(in));
2048	4874	// this data structure is not used yet, so there is no code generated to fill its members
2049	4875	return base;
2050	4876	}
2051	4877	// -----------------------------------------------------------------------------------------------------------
2052		template <> size_t GenericFill<IfcBoundedCurve>(const DB& db, const LIST& params, IfcBoundedCurve* in)
2053		{
2054		size_t base = GenericFill(db,params,static_cast<IfcCurve*>(in));
2055		return base;
2056		}
2057		// -----------------------------------------------------------------------------------------------------------
2058		template <> size_t GenericFill<IfcAxis1Placement>(const DB& db, const LIST& params, IfcAxis1Placement* in)
2059		{
2060		size_t base = GenericFill(db,params,static_cast<IfcPlacement*>(in));
2061		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcAxis1Placement"); } do { // convert the 'Axis' argument
2062		boost::shared_ptr<const DataType> arg = params[base++];
2063		if (dynamic_cast<const UNSET>(&arg)) break;
2064		try { GenericConvert( in->Axis, arg, db ); break; }
2065		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcAxis1Placement to be a `IfcDirection`")); }
2066		} while(0);
	4878	template <> size_t GenericFill<IfcElectricalCircuit>(const DB& db, const LIST& params, IfcElectricalCircuit* in)
	4879	{
	4880	size_t base = GenericFill(db,params,static_cast<IfcSystem*>(in));
	4881	// this data structure is not used yet, so there is no code generated to fill its members
	4882	return base;
	4883	}
	4884	// -----------------------------------------------------------------------------------------------------------
	4885	template <> size_t GenericFill<IfcRationalBezierCurve>(const DB& db, const LIST& params, IfcRationalBezierCurve* in)
	4886	{
	4887	size_t base = GenericFill(db,params,static_cast<IfcBezierCurve*>(in));
	4888	// this data structure is not used yet, so there is no code generated to fill its members
2067	4889	return base;
2068	4890	}
2069	4891	// -----------------------------------------------------------------------------------------------------------

2074	4896	return base;
2075	4897	}
2076	4898	// -----------------------------------------------------------------------------------------------------------
2077		template <> size_t GenericFill<IfcSpatialStructureElement>(const DB& db, const LIST& params, IfcSpatialStructureElement* in)
2078		{
2079		size_t base = GenericFill(db,params,static_cast<IfcProduct*>(in));
2080		if (params.GetSize() < 9) { throw STEP::TypeError("expected 9 arguments to IfcSpatialStructureElement"); } do { // convert the 'LongName' argument
2081		boost::shared_ptr<const DataType> arg = params[base++];
2082		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcSpatialStructureElement,2>::aux_is_derived[0]=true; break; }
2083		if (dynamic_cast<const UNSET>(&arg)) break;
2084		try { GenericConvert( in->LongName, arg, db ); break; }
2085		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 7 to IfcSpatialStructureElement to be a `IfcLabel`")); }
2086		} while(0);
2087		do { // convert the 'CompositionType' argument
2088		boost::shared_ptr<const DataType> arg = params[base++];
2089		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcSpatialStructureElement,2>::aux_is_derived[1]=true; break; }
2090		try { GenericConvert( in->CompositionType, arg, db ); break; }
2091		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 8 to IfcSpatialStructureElement to be a `IfcElementCompositionEnum`")); }
2092		} while(0);
2093		return base;
2094		}
2095		// -----------------------------------------------------------------------------------------------------------
2096		template <> size_t GenericFill<IfcSpace>(const DB& db, const LIST& params, IfcSpace* in)
2097		{
2098		size_t base = GenericFill(db,params,static_cast<IfcSpatialStructureElement*>(in));
2099		if (params.GetSize() < 11) { throw STEP::TypeError("expected 11 arguments to IfcSpace"); } do { // convert the 'InteriorOrExteriorSpace' argument
2100		boost::shared_ptr<const DataType> arg = params[base++];
2101		try { GenericConvert( in->InteriorOrExteriorSpace, arg, db ); break; }
2102		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 9 to IfcSpace to be a `IfcInternalOrExternalEnum`")); }
2103		} while(0);
2104		do { // convert the 'ElevationWithFlooring' argument
2105		boost::shared_ptr<const DataType> arg = params[base++];
2106		if (dynamic_cast<const UNSET>(&arg)) break;
2107		try { GenericConvert( in->ElevationWithFlooring, arg, db ); break; }
2108		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 10 to IfcSpace to be a `IfcLengthMeasure`")); }
2109		} while(0);
2110		return base;
2111		}
2112		// -----------------------------------------------------------------------------------------------------------
2113		template <> size_t GenericFill<IfcContextDependentUnit>(const DB& db, const LIST& params, IfcContextDependentUnit* in)
2114		{
2115		size_t base = GenericFill(db,params,static_cast<IfcNamedUnit*>(in));
2116		// this data structure is not used yet, so there is no code generated to fill its members
2117		return base;
2118		}
2119		// -----------------------------------------------------------------------------------------------------------
2120		template <> size_t GenericFill<IfcCoolingTowerType>(const DB& db, const LIST& params, IfcCoolingTowerType* in)
2121		{
2122		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
2123		// this data structure is not used yet, so there is no code generated to fill its members
2124		return base;
2125		}
2126		// -----------------------------------------------------------------------------------------------------------
2127		template <> size_t GenericFill<IfcFacetedBrepWithVoids>(const DB& db, const LIST& params, IfcFacetedBrepWithVoids* in)
2128		{
2129		size_t base = GenericFill(db,params,static_cast<IfcManifoldSolidBrep*>(in));
2130		// this data structure is not used yet, so there is no code generated to fill its members
2131		return base;
2132		}
2133		// -----------------------------------------------------------------------------------------------------------
2134		template <> size_t GenericFill<IfcValveType>(const DB& db, const LIST& params, IfcValveType* in)
2135		{
2136		size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
2137		// this data structure is not used yet, so there is no code generated to fill its members
2138		return base;
2139		}
2140		// -----------------------------------------------------------------------------------------------------------
2141		template <> size_t GenericFill<IfcSystemFurnitureElementType>(const DB& db, const LIST& params, IfcSystemFurnitureElementType* in)
2142		{
2143		size_t base = GenericFill(db,params,static_cast<IfcFurnishingElementType*>(in));
2144		// this data structure is not used yet, so there is no code generated to fill its members
2145		return base;
2146		}
2147		// -----------------------------------------------------------------------------------------------------------
2148		template <> size_t GenericFill<IfcDiscreteAccessory>(const DB& db, const LIST& params, IfcDiscreteAccessory* in)
2149		{
2150		size_t base = GenericFill(db,params,static_cast<IfcElementComponent*>(in));
2151		// this data structure is not used yet, so there is no code generated to fill its members
2152		return base;
2153		}
2154		// -----------------------------------------------------------------------------------------------------------
2155		template <> size_t GenericFill<IfcBuildingElementType>(const DB& db, const LIST& params, IfcBuildingElementType* in)
2156		{
2157		size_t base = GenericFill(db,params,static_cast<IfcElementType*>(in));
2158		// this data structure is not used yet, so there is no code generated to fill its members
2159		return base;
2160		}
2161		// -----------------------------------------------------------------------------------------------------------
2162		template <> size_t GenericFill<IfcRailingType>(const DB& db, const LIST& params, IfcRailingType* in)
2163		{
2164		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
2165		// this data structure is not used yet, so there is no code generated to fill its members
2166		return base;
2167		}
2168		// -----------------------------------------------------------------------------------------------------------
2169		template <> size_t GenericFill<IfcGasTerminalType>(const DB& db, const LIST& params, IfcGasTerminalType* in)
2170		{
2171		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
2172		// this data structure is not used yet, so there is no code generated to fill its members
2173		return base;
2174		}
2175		// -----------------------------------------------------------------------------------------------------------
2176		template <> size_t GenericFill<IfcSpaceProgram>(const DB& db, const LIST& params, IfcSpaceProgram* in)
2177		{
2178		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
2179		// this data structure is not used yet, so there is no code generated to fill its members
2180		return base;
2181		}
2182		// -----------------------------------------------------------------------------------------------------------
2183		template <> size_t GenericFill<IfcCovering>(const DB& db, const LIST& params, IfcCovering* in)
2184		{
2185		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
2186		// this data structure is not used yet, so there is no code generated to fill its members
2187		return base;
2188		}
2189		// -----------------------------------------------------------------------------------------------------------
2190		template <> size_t GenericFill<IfcPresentationStyle>(const DB& db, const LIST& params, IfcPresentationStyle* in)
2191		{
2192		size_t base = 0;
2193		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPresentationStyle"); } do { // convert the 'Name' argument
2194		boost::shared_ptr<const DataType> arg = params[base++];
2195		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcPresentationStyle,1>::aux_is_derived[0]=true; break; }
2196		if (dynamic_cast<const UNSET>(&arg)) break;
2197		try { GenericConvert( in->Name, arg, db ); break; }
2198		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcPresentationStyle to be a `IfcLabel`")); }
2199		} while(0);
2200		return base;
2201		}
2202		// -----------------------------------------------------------------------------------------------------------
2203		template <> size_t GenericFill<IfcElectricHeaterType>(const DB& db, const LIST& params, IfcElectricHeaterType* in)
2204		{
2205		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
2206		// this data structure is not used yet, so there is no code generated to fill its members
2207		return base;
2208		}
2209		// -----------------------------------------------------------------------------------------------------------
2210		template <> size_t GenericFill<IfcBuildingStorey>(const DB& db, const LIST& params, IfcBuildingStorey* in)
2211		{
2212		size_t base = GenericFill(db,params,static_cast<IfcSpatialStructureElement*>(in));
2213		// this data structure is not used yet, so there is no code generated to fill its members
2214		return base;
2215		}
2216		// -----------------------------------------------------------------------------------------------------------
2217		template <> size_t GenericFill<IfcVertex>(const DB& db, const LIST& params, IfcVertex* in)
2218		{
2219		size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
2220		// this data structure is not used yet, so there is no code generated to fill its members
2221		return base;
2222		}
2223		// -----------------------------------------------------------------------------------------------------------
2224		template <> size_t GenericFill<IfcVertexPoint>(const DB& db, const LIST& params, IfcVertexPoint* in)
2225		{
2226		size_t base = GenericFill(db,params,static_cast<IfcVertex*>(in));
2227		// this data structure is not used yet, so there is no code generated to fill its members
2228		return base;
2229		}
2230		// -----------------------------------------------------------------------------------------------------------
2231		template <> size_t GenericFill<IfcFlowInstrumentType>(const DB& db, const LIST& params, IfcFlowInstrumentType* in)
2232		{
2233		size_t base = GenericFill(db,params,static_cast<IfcDistributionControlElementType*>(in));
2234		// this data structure is not used yet, so there is no code generated to fill its members
2235		return base;
2236		}
2237		// -----------------------------------------------------------------------------------------------------------
2238		template <> size_t GenericFill<IfcParameterizedProfileDef>(const DB& db, const LIST& params, IfcParameterizedProfileDef* in)
2239		{
2240		size_t base = GenericFill(db,params,static_cast<IfcProfileDef*>(in));
2241		if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcParameterizedProfileDef"); } do { // convert the 'Position' argument
2242		boost::shared_ptr<const DataType> arg = params[base++];
2243		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcParameterizedProfileDef,1>::aux_is_derived[0]=true; break; }
2244		try { GenericConvert( in->Position, arg, db ); break; }
2245		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcParameterizedProfileDef to be a `IfcAxis2Placement2D`")); }
2246		} while(0);
2247		return base;
2248		}
2249		// -----------------------------------------------------------------------------------------------------------
2250		template <> size_t GenericFill<IfcUShapeProfileDef>(const DB& db, const LIST& params, IfcUShapeProfileDef* in)
2251		{
2252		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
2253		// this data structure is not used yet, so there is no code generated to fill its members
2254		return base;
2255		}
2256		// -----------------------------------------------------------------------------------------------------------
2257		template <> size_t GenericFill<IfcRamp>(const DB& db, const LIST& params, IfcRamp* in)
2258		{
2259		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
2260		// this data structure is not used yet, so there is no code generated to fill its members
2261		return base;
2262		}
2263		// -----------------------------------------------------------------------------------------------------------
2264		template <> size_t GenericFill<IfcCompositeCurve>(const DB& db, const LIST& params, IfcCompositeCurve* in)
2265		{
2266		size_t base = GenericFill(db,params,static_cast<IfcBoundedCurve*>(in));
2267		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcCompositeCurve"); } do { // convert the 'Segments' argument
2268		boost::shared_ptr<const DataType> arg = params[base++];
2269		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCompositeCurve,2>::aux_is_derived[0]=true; break; }
2270		try { GenericConvert( in->Segments, arg, db ); break; }
2271		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcCompositeCurve to be a `LIST [1:?] OF IfcCompositeCurveSegment`")); }
2272		} while(0);
2273		do { // convert the 'SelfIntersect' argument
2274		boost::shared_ptr<const DataType> arg = params[base++];
2275		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCompositeCurve,2>::aux_is_derived[1]=true; break; }
2276		try { GenericConvert( in->SelfIntersect, arg, db ); break; }
2277		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcCompositeCurve to be a `LOGICAL`")); }
2278		} while(0);
2279		return base;
2280		}
2281		// -----------------------------------------------------------------------------------------------------------
2282		template <> size_t GenericFill<IfcStructuralCurveMemberVarying>(const DB& db, const LIST& params, IfcStructuralCurveMemberVarying* in)
2283		{
2284		size_t base = GenericFill(db,params,static_cast<IfcStructuralCurveMember*>(in));
2285		// this data structure is not used yet, so there is no code generated to fill its members
2286		return base;
2287		}
2288		// -----------------------------------------------------------------------------------------------------------
2289		template <> size_t GenericFill<IfcRampFlightType>(const DB& db, const LIST& params, IfcRampFlightType* in)
2290		{
2291		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
2292		// this data structure is not used yet, so there is no code generated to fill its members
2293		return base;
2294		}
2295		// -----------------------------------------------------------------------------------------------------------
2296		template <> size_t GenericFill<IfcDraughtingCallout>(const DB& db, const LIST& params, IfcDraughtingCallout* in)
2297		{
2298		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
2299		// this data structure is not used yet, so there is no code generated to fill its members
2300		return base;
2301		}
2302		// -----------------------------------------------------------------------------------------------------------
2303		template <> size_t GenericFill<IfcDimensionCurveDirectedCallout>(const DB& db, const LIST& params, IfcDimensionCurveDirectedCallout* in)
2304		{
2305		size_t base = GenericFill(db,params,static_cast<IfcDraughtingCallout*>(in));
2306		// this data structure is not used yet, so there is no code generated to fill its members
2307		return base;
2308		}
2309		// -----------------------------------------------------------------------------------------------------------
2310		template <> size_t GenericFill<IfcRadiusDimension>(const DB& db, const LIST& params, IfcRadiusDimension* in)
2311		{
2312		size_t base = GenericFill(db,params,static_cast<IfcDimensionCurveDirectedCallout*>(in));
2313		// this data structure is not used yet, so there is no code generated to fill its members
2314		return base;
2315		}
2316		// -----------------------------------------------------------------------------------------------------------
2317		template <> size_t GenericFill<IfcEdgeFeature>(const DB& db, const LIST& params, IfcEdgeFeature* in)
2318		{
2319		size_t base = GenericFill(db,params,static_cast<IfcFeatureElementSubtraction*>(in));
2320		// this data structure is not used yet, so there is no code generated to fill its members
2321		return base;
2322		}
2323		// -----------------------------------------------------------------------------------------------------------
2324		template <> size_t GenericFill<IfcSweptAreaSolid>(const DB& db, const LIST& params, IfcSweptAreaSolid* in)
2325		{
2326		size_t base = GenericFill(db,params,static_cast<IfcSolidModel*>(in));
2327		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcSweptAreaSolid"); } do { // convert the 'SweptArea' argument
2328		boost::shared_ptr<const DataType> arg = params[base++];
2329		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcSweptAreaSolid,2>::aux_is_derived[0]=true; break; }
2330		try { GenericConvert( in->SweptArea, arg, db ); break; }
2331		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcSweptAreaSolid to be a `IfcProfileDef`")); }
2332		} while(0);
2333		do { // convert the 'Position' argument
2334		boost::shared_ptr<const DataType> arg = params[base++];
2335		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcSweptAreaSolid,2>::aux_is_derived[1]=true; break; }
2336		try { GenericConvert( in->Position, arg, db ); break; }
2337		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcSweptAreaSolid to be a `IfcAxis2Placement3D`")); }
2338		} while(0);
2339		return base;
2340		}
2341		// -----------------------------------------------------------------------------------------------------------
2342		template <> size_t GenericFill<IfcExtrudedAreaSolid>(const DB& db, const LIST& params, IfcExtrudedAreaSolid* in)
2343		{
2344		size_t base = GenericFill(db,params,static_cast<IfcSweptAreaSolid*>(in));
2345		if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcExtrudedAreaSolid"); } do { // convert the 'ExtrudedDirection' argument
2346		boost::shared_ptr<const DataType> arg = params[base++];
2347		try { GenericConvert( in->ExtrudedDirection, arg, db ); break; }
2348		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcExtrudedAreaSolid to be a `IfcDirection`")); }
2349		} while(0);
2350		do { // convert the 'Depth' argument
2351		boost::shared_ptr<const DataType> arg = params[base++];
2352		try { GenericConvert( in->Depth, arg, db ); break; }
2353		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcExtrudedAreaSolid to be a `IfcPositiveLengthMeasure`")); }
2354		} while(0);
2355		return base;
2356		}
2357		// -----------------------------------------------------------------------------------------------------------
2358		template <> size_t GenericFill<IfcAnnotationTextOccurrence>(const DB& db, const LIST& params, IfcAnnotationTextOccurrence* in)
2359		{
2360		size_t base = GenericFill(db,params,static_cast<IfcAnnotationOccurrence*>(in));
2361		// this data structure is not used yet, so there is no code generated to fill its members
2362		return base;
2363		}
2364		// -----------------------------------------------------------------------------------------------------------
2365		template <> size_t GenericFill<IfcStair>(const DB& db, const LIST& params, IfcStair* in)
2366		{
2367		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
2368		// this data structure is not used yet, so there is no code generated to fill its members
2369		return base;
2370		}
2371		// -----------------------------------------------------------------------------------------------------------
2372		template <> size_t GenericFill<IfcFillAreaStyleTileSymbolWithStyle>(const DB& db, const LIST& params, IfcFillAreaStyleTileSymbolWithStyle* in)
2373		{
2374		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
2375		// this data structure is not used yet, so there is no code generated to fill its members
2376		return base;
2377		}
2378		// -----------------------------------------------------------------------------------------------------------
2379		template <> size_t GenericFill<IfcAnnotationSymbolOccurrence>(const DB& db, const LIST& params, IfcAnnotationSymbolOccurrence* in)
2380		{
2381		size_t base = GenericFill(db,params,static_cast<IfcAnnotationOccurrence*>(in));
2382		// this data structure is not used yet, so there is no code generated to fill its members
2383		return base;
2384		}
2385		// -----------------------------------------------------------------------------------------------------------
2386		template <> size_t GenericFill<IfcTerminatorSymbol>(const DB& db, const LIST& params, IfcTerminatorSymbol* in)
2387		{
2388		size_t base = GenericFill(db,params,static_cast<IfcAnnotationSymbolOccurrence*>(in));
2389		// this data structure is not used yet, so there is no code generated to fill its members
2390		return base;
2391		}
2392		// -----------------------------------------------------------------------------------------------------------
2393		template <> size_t GenericFill<IfcDimensionCurveTerminator>(const DB& db, const LIST& params, IfcDimensionCurveTerminator* in)
2394		{
2395		size_t base = GenericFill(db,params,static_cast<IfcTerminatorSymbol*>(in));
2396		// this data structure is not used yet, so there is no code generated to fill its members
2397		return base;
2398		}
2399		// -----------------------------------------------------------------------------------------------------------
2400		template <> size_t GenericFill<IfcRectangleProfileDef>(const DB& db, const LIST& params, IfcRectangleProfileDef* in)
2401		{
2402		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
2403		if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcRectangleProfileDef"); } do { // convert the 'XDim' argument
2404		boost::shared_ptr<const DataType> arg = params[base++];
2405		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRectangleProfileDef,2>::aux_is_derived[0]=true; break; }
2406		try { GenericConvert( in->XDim, arg, db ); break; }
2407		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcRectangleProfileDef to be a `IfcPositiveLengthMeasure`")); }
2408		} while(0);
2409		do { // convert the 'YDim' argument
2410		boost::shared_ptr<const DataType> arg = params[base++];
2411		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRectangleProfileDef,2>::aux_is_derived[1]=true; break; }
2412		try { GenericConvert( in->YDim, arg, db ); break; }
2413		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRectangleProfileDef to be a `IfcPositiveLengthMeasure`")); }
2414		} while(0);
2415		return base;
2416		}
2417		// -----------------------------------------------------------------------------------------------------------
2418		template <> size_t GenericFill<IfcRectangleHollowProfileDef>(const DB& db, const LIST& params, IfcRectangleHollowProfileDef* in)
2419		{
2420		size_t base = GenericFill(db,params,static_cast<IfcRectangleProfileDef*>(in));
2421		// this data structure is not used yet, so there is no code generated to fill its members
2422		return base;
2423		}
2424		// -----------------------------------------------------------------------------------------------------------
2425		template <> size_t GenericFill<IfcLocalPlacement>(const DB& db, const LIST& params, IfcLocalPlacement* in)
2426		{
2427		size_t base = GenericFill(db,params,static_cast<IfcObjectPlacement*>(in));
2428		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcLocalPlacement"); } do { // convert the 'PlacementRelTo' argument
2429		boost::shared_ptr<const DataType> arg = params[base++];
2430		if (dynamic_cast<const UNSET>(&arg)) break;
2431		try { GenericConvert( in->PlacementRelTo, arg, db ); break; }
2432		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcLocalPlacement to be a `IfcObjectPlacement`")); }
2433		} while(0);
2434		do { // convert the 'RelativePlacement' argument
2435		boost::shared_ptr<const DataType> arg = params[base++];
2436		try { GenericConvert( in->RelativePlacement, arg, db ); break; }
2437		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcLocalPlacement to be a `IfcAxis2Placement`")); }
2438		} while(0);
2439		return base;
2440		}
2441		// -----------------------------------------------------------------------------------------------------------
2442		template <> size_t GenericFill<IfcTask>(const DB& db, const LIST& params, IfcTask* in)
2443		{
2444		size_t base = GenericFill(db,params,static_cast<IfcProcess*>(in));
2445		// this data structure is not used yet, so there is no code generated to fill its members
2446		return base;
2447		}
2448		// -----------------------------------------------------------------------------------------------------------
2449		template <> size_t GenericFill<IfcAnnotationFillAreaOccurrence>(const DB& db, const LIST& params, IfcAnnotationFillAreaOccurrence* in)
2450		{
2451		size_t base = GenericFill(db,params,static_cast<IfcAnnotationOccurrence*>(in));
2452		// this data structure is not used yet, so there is no code generated to fill its members
2453		return base;
2454		}
2455		// -----------------------------------------------------------------------------------------------------------
2456		template <> size_t GenericFill<IfcFace>(const DB& db, const LIST& params, IfcFace* in)
2457		{
2458		size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
2459		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcFace"); } do { // convert the 'Bounds' argument
2460		boost::shared_ptr<const DataType> arg = params[base++];
2461		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcFace,1>::aux_is_derived[0]=true; break; }
2462		try { GenericConvert( in->Bounds, arg, db ); break; }
2463		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcFace to be a `SET [1:?] OF IfcFaceBound`")); }
2464		} while(0);
2465		return base;
2466		}
2467		// -----------------------------------------------------------------------------------------------------------
2468		template <> size_t GenericFill<IfcFlowSegmentType>(const DB& db, const LIST& params, IfcFlowSegmentType* in)
2469		{
2470		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
2471		// this data structure is not used yet, so there is no code generated to fill its members
2472		return base;
2473		}
2474		// -----------------------------------------------------------------------------------------------------------
2475		template <> size_t GenericFill<IfcDuctSegmentType>(const DB& db, const LIST& params, IfcDuctSegmentType* in)
	4899	template <> size_t GenericFill<IfcPipeSegmentType>(const DB& db, const LIST& params, IfcPipeSegmentType* in)
2476	4900	{
2477	4901	size_t base = GenericFill(db,params,static_cast<IfcFlowSegmentType*>(in));
2478	4902	// this data structure is not used yet, so there is no code generated to fill its members
2479	4903	return base;
2480	4904	}
2481	4905	// -----------------------------------------------------------------------------------------------------------
2482		template <> size_t GenericFill<IfcConstructionResource>(const DB& db, const LIST& params, IfcConstructionResource* in)
2483		{
2484		size_t base = GenericFill(db,params,static_cast<IfcResource*>(in));
2485		// this data structure is not used yet, so there is no code generated to fill its members
2486		return base;
2487		}
2488		// -----------------------------------------------------------------------------------------------------------
2489		template <> size_t GenericFill<IfcConstructionEquipmentResource>(const DB& db, const LIST& params, IfcConstructionEquipmentResource* in)
2490		{
2491		size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
2492		// this data structure is not used yet, so there is no code generated to fill its members
2493		return base;
2494		}
2495		// -----------------------------------------------------------------------------------------------------------
2496		template <> size_t GenericFill<IfcSanitaryTerminalType>(const DB& db, const LIST& params, IfcSanitaryTerminalType* in)
2497		{
2498		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
2499		// this data structure is not used yet, so there is no code generated to fill its members
2500		return base;
2501		}
2502		// -----------------------------------------------------------------------------------------------------------
2503		template <> size_t GenericFill<IfcCircleProfileDef>(const DB& db, const LIST& params, IfcCircleProfileDef* in)
2504		{
2505		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
2506		if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcCircleProfileDef"); } do { // convert the 'Radius' argument
2507		boost::shared_ptr<const DataType> arg = params[base++];
2508		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCircleProfileDef,1>::aux_is_derived[0]=true; break; }
2509		try { GenericConvert( in->Radius, arg, db ); break; }
2510		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcCircleProfileDef to be a `IfcPositiveLengthMeasure`")); }
2511		} while(0);
2512		return base;
2513		}
2514		// -----------------------------------------------------------------------------------------------------------
2515		template <> size_t GenericFill<IfcStructuralReaction>(const DB& db, const LIST& params, IfcStructuralReaction* in)
2516		{
2517		size_t base = GenericFill(db,params,static_cast<IfcStructuralActivity*>(in));
2518		// this data structure is not used yet, so there is no code generated to fill its members
2519		return base;
2520		}
2521		// -----------------------------------------------------------------------------------------------------------
2522		template <> size_t GenericFill<IfcStructuralPointReaction>(const DB& db, const LIST& params, IfcStructuralPointReaction* in)
2523		{
2524		size_t base = GenericFill(db,params,static_cast<IfcStructuralReaction*>(in));
2525		// this data structure is not used yet, so there is no code generated to fill its members
2526		return base;
2527		}
2528		// -----------------------------------------------------------------------------------------------------------
2529		template <> size_t GenericFill<IfcRailing>(const DB& db, const LIST& params, IfcRailing* in)
2530		{
2531		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
2532		// this data structure is not used yet, so there is no code generated to fill its members
2533		return base;
2534		}
2535		// -----------------------------------------------------------------------------------------------------------
2536		template <> size_t GenericFill<IfcTextLiteral>(const DB& db, const LIST& params, IfcTextLiteral* in)
2537		{
2538		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
2539		// this data structure is not used yet, so there is no code generated to fill its members
2540		return base;
2541		}
2542		// -----------------------------------------------------------------------------------------------------------
2543		template <> size_t GenericFill<IfcCartesianTransformationOperator>(const DB& db, const LIST& params, IfcCartesianTransformationOperator* in)
2544		{
2545		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
2546		if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcCartesianTransformationOperator"); } do { // convert the 'Axis1' argument
2547		boost::shared_ptr<const DataType> arg = params[base++];
2548		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCartesianTransformationOperator,4>::aux_is_derived[0]=true; break; }
2549		if (dynamic_cast<const UNSET>(&arg)) break;
2550		try { GenericConvert( in->Axis1, arg, db ); break; }
2551		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcCartesianTransformationOperator to be a `IfcDirection`")); }
2552		} while(0);
2553		do { // convert the 'Axis2' argument
2554		boost::shared_ptr<const DataType> arg = params[base++];
2555		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCartesianTransformationOperator,4>::aux_is_derived[1]=true; break; }
2556		if (dynamic_cast<const UNSET>(&arg)) break;
2557		try { GenericConvert( in->Axis2, arg, db ); break; }
2558		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcCartesianTransformationOperator to be a `IfcDirection`")); }
2559		} while(0);
2560		do { // convert the 'LocalOrigin' argument
2561		boost::shared_ptr<const DataType> arg = params[base++];
2562		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCartesianTransformationOperator,4>::aux_is_derived[2]=true; break; }
2563		try { GenericConvert( in->LocalOrigin, arg, db ); break; }
2564		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcCartesianTransformationOperator to be a `IfcCartesianPoint`")); }
2565		} while(0);
2566		do { // convert the 'Scale' argument
2567		boost::shared_ptr<const DataType> arg = params[base++];
2568		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCartesianTransformationOperator,4>::aux_is_derived[3]=true; break; }
2569		if (dynamic_cast<const UNSET>(&arg)) break;
2570		try { GenericConvert( in->Scale, arg, db ); break; }
2571		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcCartesianTransformationOperator to be a `REAL`")); }
2572		} while(0);
2573		return base;
2574		}
2575		// -----------------------------------------------------------------------------------------------------------
2576		template <> size_t GenericFill<IfcLinearDimension>(const DB& db, const LIST& params, IfcLinearDimension* in)
2577		{
2578		size_t base = GenericFill(db,params,static_cast<IfcDimensionCurveDirectedCallout*>(in));
2579		// this data structure is not used yet, so there is no code generated to fill its members
2580		return base;
2581		}
2582		// -----------------------------------------------------------------------------------------------------------
2583		template <> size_t GenericFill<IfcDamperType>(const DB& db, const LIST& params, IfcDamperType* in)
2584		{
2585		size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
2586		// this data structure is not used yet, so there is no code generated to fill its members
2587		return base;
2588		}
2589		// -----------------------------------------------------------------------------------------------------------
2590		template <> size_t GenericFill<IfcSIUnit>(const DB& db, const LIST& params, IfcSIUnit* in)
2591		{
2592		size_t base = GenericFill(db,params,static_cast<IfcNamedUnit*>(in));
2593		if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcSIUnit"); } do { // convert the 'Prefix' argument
2594		boost::shared_ptr<const DataType> arg = params[base++];
2595		if (dynamic_cast<const UNSET>(&arg)) break;
2596		try { GenericConvert( in->Prefix, arg, db ); break; }
2597		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcSIUnit to be a `IfcSIPrefix`")); }
2598		} while(0);
2599		do { // convert the 'Name' argument
2600		boost::shared_ptr<const DataType> arg = params[base++];
2601		try { GenericConvert( in->Name, arg, db ); break; }
2602		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcSIUnit to be a `IfcSIUnitName`")); }
2603		} while(0);
2604		return base;
2605		}
2606		// -----------------------------------------------------------------------------------------------------------
2607		template <> size_t GenericFill<IfcMeasureWithUnit>(const DB& db, const LIST& params, IfcMeasureWithUnit* in)
2608		{
2609		size_t base = 0;
2610		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcMeasureWithUnit"); } do { // convert the 'ValueComponent' argument
2611		boost::shared_ptr<const DataType> arg = params[base++];
2612		try { GenericConvert( in->ValueComponent, arg, db ); break; }
2613		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcMeasureWithUnit to be a `IfcValue`")); }
2614		} while(0);
2615		do { // convert the 'UnitComponent' argument
2616		boost::shared_ptr<const DataType> arg = params[base++];
2617		try { GenericConvert( in->UnitComponent, arg, db ); break; }
2618		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcMeasureWithUnit to be a `IfcUnit`")); }
2619		} while(0);
2620		return base;
2621		}
2622		// -----------------------------------------------------------------------------------------------------------
2623		template <> size_t GenericFill<IfcDistributionElement>(const DB& db, const LIST& params, IfcDistributionElement* in)
2624		{
2625		size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
2626		// this data structure is not used yet, so there is no code generated to fill its members
2627		return base;
2628		}
2629		// -----------------------------------------------------------------------------------------------------------
2630		template <> size_t GenericFill<IfcDistributionControlElement>(const DB& db, const LIST& params, IfcDistributionControlElement* in)
2631		{
2632		size_t base = GenericFill(db,params,static_cast<IfcDistributionElement*>(in));
2633		// this data structure is not used yet, so there is no code generated to fill its members
2634		return base;
2635		}
2636		// -----------------------------------------------------------------------------------------------------------
2637		template <> size_t GenericFill<IfcTransformerType>(const DB& db, const LIST& params, IfcTransformerType* in)
2638		{
2639		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
2640		// this data structure is not used yet, so there is no code generated to fill its members
2641		return base;
2642		}
2643		// -----------------------------------------------------------------------------------------------------------
2644		template <> size_t GenericFill<IfcLaborResource>(const DB& db, const LIST& params, IfcLaborResource* in)
2645		{
2646		size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
2647		// this data structure is not used yet, so there is no code generated to fill its members
2648		return base;
2649		}
2650		// -----------------------------------------------------------------------------------------------------------
2651		template <> size_t GenericFill<IfcDerivedProfileDef>(const DB& db, const LIST& params, IfcDerivedProfileDef* in)
2652		{
2653		size_t base = GenericFill(db,params,static_cast<IfcProfileDef*>(in));
2654		// this data structure is not used yet, so there is no code generated to fill its members
2655		return base;
2656		}
2657		// -----------------------------------------------------------------------------------------------------------
2658		template <> size_t GenericFill<IfcFurnitureStandard>(const DB& db, const LIST& params, IfcFurnitureStandard* in)
2659		{
2660		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
2661		// this data structure is not used yet, so there is no code generated to fill its members
2662		return base;
2663		}
2664		// -----------------------------------------------------------------------------------------------------------
2665		template <> size_t GenericFill<IfcStairFlightType>(const DB& db, const LIST& params, IfcStairFlightType* in)
2666		{
2667		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
2668		// this data structure is not used yet, so there is no code generated to fill its members
2669		return base;
2670		}
2671		// -----------------------------------------------------------------------------------------------------------
2672		template <> size_t GenericFill<IfcWorkControl>(const DB& db, const LIST& params, IfcWorkControl* in)
2673		{
2674		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
2675		// this data structure is not used yet, so there is no code generated to fill its members
2676		return base;
2677		}
2678		// -----------------------------------------------------------------------------------------------------------
2679		template <> size_t GenericFill<IfcWorkPlan>(const DB& db, const LIST& params, IfcWorkPlan* in)
2680		{
2681		size_t base = GenericFill(db,params,static_cast<IfcWorkControl*>(in));
2682		// this data structure is not used yet, so there is no code generated to fill its members
2683		return base;
2684		}
2685		// -----------------------------------------------------------------------------------------------------------
2686		template <> size_t GenericFill<IfcCondition>(const DB& db, const LIST& params, IfcCondition* in)
2687		{
2688		size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
2689		// this data structure is not used yet, so there is no code generated to fill its members
2690		return base;
2691		}
2692		// -----------------------------------------------------------------------------------------------------------
2693		template <> size_t GenericFill<IfcRelVoidsElement>(const DB& db, const LIST& params, IfcRelVoidsElement* in)
2694		{
2695		size_t base = GenericFill(db,params,static_cast<IfcRelConnects*>(in));
2696		if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelVoidsElement"); } do { // convert the 'RelatingBuildingElement' argument
2697		boost::shared_ptr<const DataType> arg = params[base++];
2698		try { GenericConvert( in->RelatingBuildingElement, arg, db ); break; }
2699		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRelVoidsElement to be a `IfcElement`")); }
2700		} while(0);
2701		do { // convert the 'RelatedOpeningElement' argument
2702		boost::shared_ptr<const DataType> arg = params[base++];
2703		try { GenericConvert( in->RelatedOpeningElement, arg, db ); break; }
2704		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcRelVoidsElement to be a `IfcFeatureElementSubtraction`")); }
2705		} while(0);
2706		return base;
2707		}
2708		// -----------------------------------------------------------------------------------------------------------
2709		template <> size_t GenericFill<IfcWindow>(const DB& db, const LIST& params, IfcWindow* in)
2710		{
2711		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
2712		// this data structure is not used yet, so there is no code generated to fill its members
2713		return base;
2714		}
2715		// -----------------------------------------------------------------------------------------------------------
2716		template <> size_t GenericFill<IfcProtectiveDeviceType>(const DB& db, const LIST& params, IfcProtectiveDeviceType* in)
2717		{
2718		size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
2719		// this data structure is not used yet, so there is no code generated to fill its members
2720		return base;
2721		}
2722		// -----------------------------------------------------------------------------------------------------------
2723		template <> size_t GenericFill<IfcJunctionBoxType>(const DB& db, const LIST& params, IfcJunctionBoxType* in)
2724		{
2725		size_t base = GenericFill(db,params,static_cast<IfcFlowFittingType*>(in));
2726		// this data structure is not used yet, so there is no code generated to fill its members
2727		return base;
2728		}
2729		// -----------------------------------------------------------------------------------------------------------
2730		template <> size_t GenericFill<IfcStructuralAnalysisModel>(const DB& db, const LIST& params, IfcStructuralAnalysisModel* in)
2731		{
2732		size_t base = GenericFill(db,params,static_cast<IfcSystem*>(in));
2733		// this data structure is not used yet, so there is no code generated to fill its members
2734		return base;
2735		}
2736		// -----------------------------------------------------------------------------------------------------------
2737		template <> size_t GenericFill<IfcAxis2Placement2D>(const DB& db, const LIST& params, IfcAxis2Placement2D* in)
2738		{
2739		size_t base = GenericFill(db,params,static_cast<IfcPlacement*>(in));
2740		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcAxis2Placement2D"); } do { // convert the 'RefDirection' argument
2741		boost::shared_ptr<const DataType> arg = params[base++];
2742		if (dynamic_cast<const UNSET>(&arg)) break;
2743		try { GenericConvert( in->RefDirection, arg, db ); break; }
2744		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcAxis2Placement2D to be a `IfcDirection`")); }
2745		} while(0);
2746		return base;
2747		}
2748		// -----------------------------------------------------------------------------------------------------------
2749		template <> size_t GenericFill<IfcSpaceType>(const DB& db, const LIST& params, IfcSpaceType* in)
2750		{
2751		size_t base = GenericFill(db,params,static_cast<IfcSpatialStructureElementType*>(in));
2752		// this data structure is not used yet, so there is no code generated to fill its members
2753		return base;
2754		}
2755		// -----------------------------------------------------------------------------------------------------------
2756		template <> size_t GenericFill<IfcEllipseProfileDef>(const DB& db, const LIST& params, IfcEllipseProfileDef* in)
2757		{
2758		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
2759		// this data structure is not used yet, so there is no code generated to fill its members
2760		return base;
2761		}
2762		// -----------------------------------------------------------------------------------------------------------
2763		template <> size_t GenericFill<IfcDistributionFlowElement>(const DB& db, const LIST& params, IfcDistributionFlowElement* in)
2764		{
2765		size_t base = GenericFill(db,params,static_cast<IfcDistributionElement*>(in));
2766		// this data structure is not used yet, so there is no code generated to fill its members
2767		return base;
2768		}
2769		// -----------------------------------------------------------------------------------------------------------
2770		template <> size_t GenericFill<IfcFlowMovingDevice>(const DB& db, const LIST& params, IfcFlowMovingDevice* in)
2771		{
2772		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
2773		// this data structure is not used yet, so there is no code generated to fill its members
2774		return base;
2775		}
2776		// -----------------------------------------------------------------------------------------------------------
2777		template <> size_t GenericFill<IfcSurfaceStyleWithTextures>(const DB& db, const LIST& params, IfcSurfaceStyleWithTextures* in)
2778		{
2779		size_t base = 0;
2780		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcSurfaceStyleWithTextures"); } do { // convert the 'Textures' argument
2781		boost::shared_ptr<const DataType> arg = params[base++];
2782		try { GenericConvert( in->Textures, arg, db ); break; }
2783		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcSurfaceStyleWithTextures to be a `LIST [1:?] OF IfcSurfaceTexture`")); }
2784		} while(0);
2785		return base;
2786		}
2787		// -----------------------------------------------------------------------------------------------------------
2788		template <> size_t GenericFill<IfcGeometricSet>(const DB& db, const LIST& params, IfcGeometricSet* in)
2789		{
2790		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
2791		// this data structure is not used yet, so there is no code generated to fill its members
2792		return base;
2793		}
2794		// -----------------------------------------------------------------------------------------------------------
2795		template <> size_t GenericFill<IfcProjectOrder>(const DB& db, const LIST& params, IfcProjectOrder* in)
2796		{
2797		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
2798		// this data structure is not used yet, so there is no code generated to fill its members
2799		return base;
2800		}
2801		// -----------------------------------------------------------------------------------------------------------
2802		template <> size_t GenericFill<IfcBSplineCurve>(const DB& db, const LIST& params, IfcBSplineCurve* in)
2803		{
2804		size_t base = GenericFill(db,params,static_cast<IfcBoundedCurve*>(in));
2805		if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcBSplineCurve"); } do { // convert the 'Degree' argument
2806		boost::shared_ptr<const DataType> arg = params[base++];
2807		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBSplineCurve,5>::aux_is_derived[0]=true; break; }
2808		try { GenericConvert( in->Degree, arg, db ); break; }
2809		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcBSplineCurve to be a `INTEGER`")); }
2810		} while(0);
2811		do { // convert the 'ControlPointsList' argument
2812		boost::shared_ptr<const DataType> arg = params[base++];
2813		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBSplineCurve,5>::aux_is_derived[1]=true; break; }
2814		try { GenericConvert( in->ControlPointsList, arg, db ); break; }
2815		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcBSplineCurve to be a `LIST [2:?] OF IfcCartesianPoint`")); }
2816		} while(0);
2817		do { // convert the 'CurveForm' argument
2818		boost::shared_ptr<const DataType> arg = params[base++];
2819		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBSplineCurve,5>::aux_is_derived[2]=true; break; }
2820		try { GenericConvert( in->CurveForm, arg, db ); break; }
2821		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcBSplineCurve to be a `IfcBSplineCurveForm`")); }
2822		} while(0);
2823		do { // convert the 'ClosedCurve' argument
2824		boost::shared_ptr<const DataType> arg = params[base++];
2825		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBSplineCurve,5>::aux_is_derived[3]=true; break; }
2826		try { GenericConvert( in->ClosedCurve, arg, db ); break; }
2827		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcBSplineCurve to be a `LOGICAL`")); }
2828		} while(0);
2829		do { // convert the 'SelfIntersect' argument
2830		boost::shared_ptr<const DataType> arg = params[base++];
2831		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcBSplineCurve,5>::aux_is_derived[4]=true; break; }
2832		try { GenericConvert( in->SelfIntersect, arg, db ); break; }
2833		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcBSplineCurve to be a `LOGICAL`")); }
2834		} while(0);
2835		return base;
2836		}
2837		// -----------------------------------------------------------------------------------------------------------
2838		template <> size_t GenericFill<IfcBezierCurve>(const DB& db, const LIST& params, IfcBezierCurve* in)
2839		{
2840		size_t base = GenericFill(db,params,static_cast<IfcBSplineCurve*>(in));
2841		// this data structure is not used yet, so there is no code generated to fill its members
2842		return base;
2843		}
2844		// -----------------------------------------------------------------------------------------------------------
2845		template <> size_t GenericFill<IfcStructuralPointConnection>(const DB& db, const LIST& params, IfcStructuralPointConnection* in)
2846		{
2847		size_t base = GenericFill(db,params,static_cast<IfcStructuralConnection*>(in));
2848		// this data structure is not used yet, so there is no code generated to fill its members
2849		return base;
2850		}
2851		// -----------------------------------------------------------------------------------------------------------
2852		template <> size_t GenericFill<IfcFlowController>(const DB& db, const LIST& params, IfcFlowController* in)
2853		{
2854		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
2855		// this data structure is not used yet, so there is no code generated to fill its members
2856		return base;
2857		}
2858		// -----------------------------------------------------------------------------------------------------------
2859		template <> size_t GenericFill<IfcElectricDistributionPoint>(const DB& db, const LIST& params, IfcElectricDistributionPoint* in)
2860		{
2861		size_t base = GenericFill(db,params,static_cast<IfcFlowController*>(in));
2862		// this data structure is not used yet, so there is no code generated to fill its members
2863		return base;
2864		}
2865		// -----------------------------------------------------------------------------------------------------------
2866		template <> size_t GenericFill<IfcSite>(const DB& db, const LIST& params, IfcSite* in)
2867		{
2868		size_t base = GenericFill(db,params,static_cast<IfcSpatialStructureElement*>(in));
2869		if (params.GetSize() < 14) { throw STEP::TypeError("expected 14 arguments to IfcSite"); } do { // convert the 'RefLatitude' argument
2870		boost::shared_ptr<const DataType> arg = params[base++];
2871		if (dynamic_cast<const UNSET>(&arg)) break;
2872		try { GenericConvert( in->RefLatitude, arg, db ); break; }
2873		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 9 to IfcSite to be a `IfcCompoundPlaneAngleMeasure`")); }
2874		} while(0);
2875		do { // convert the 'RefLongitude' argument
2876		boost::shared_ptr<const DataType> arg = params[base++];
2877		if (dynamic_cast<const UNSET>(&arg)) break;
2878		try { GenericConvert( in->RefLongitude, arg, db ); break; }
2879		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 10 to IfcSite to be a `IfcCompoundPlaneAngleMeasure`")); }
2880		} while(0);
2881		do { // convert the 'RefElevation' argument
2882		boost::shared_ptr<const DataType> arg = params[base++];
2883		if (dynamic_cast<const UNSET>(&arg)) break;
2884		try { GenericConvert( in->RefElevation, arg, db ); break; }
2885		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 11 to IfcSite to be a `IfcLengthMeasure`")); }
2886		} while(0);
2887		do { // convert the 'LandTitleNumber' argument
2888		boost::shared_ptr<const DataType> arg = params[base++];
2889		if (dynamic_cast<const UNSET>(&arg)) break;
2890		try { GenericConvert( in->LandTitleNumber, arg, db ); break; }
2891		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 12 to IfcSite to be a `IfcLabel`")); }
2892		} while(0);
2893		do { // convert the 'SiteAddress' argument
2894		boost::shared_ptr<const DataType> arg = params[base++];
2895		if (dynamic_cast<const UNSET>(&arg)) break;
2896		try { GenericConvert( in->SiteAddress, arg, db ); break; }
2897		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 13 to IfcSite to be a `IfcPostalAddress`")); }
2898		} while(0);
2899		return base;
2900		}
2901		// -----------------------------------------------------------------------------------------------------------
2902		template <> size_t GenericFill<IfcOffsetCurve3D>(const DB& db, const LIST& params, IfcOffsetCurve3D* in)
2903		{
2904		size_t base = GenericFill(db,params,static_cast<IfcCurve*>(in));
2905		// this data structure is not used yet, so there is no code generated to fill its members
2906		return base;
2907		}
2908		// -----------------------------------------------------------------------------------------------------------
2909		template <> size_t GenericFill<IfcVirtualElement>(const DB& db, const LIST& params, IfcVirtualElement* in)
2910		{
2911		size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
2912		// this data structure is not used yet, so there is no code generated to fill its members
2913		return base;
2914		}
2915		// -----------------------------------------------------------------------------------------------------------
2916		template <> size_t GenericFill<IfcConstructionProductResource>(const DB& db, const LIST& params, IfcConstructionProductResource* in)
2917		{
2918		size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
2919		// this data structure is not used yet, so there is no code generated to fill its members
2920		return base;
2921		}
2922		// -----------------------------------------------------------------------------------------------------------
2923		template <> size_t GenericFill<IfcSurfaceCurveSweptAreaSolid>(const DB& db, const LIST& params, IfcSurfaceCurveSweptAreaSolid* in)
2924		{
2925		size_t base = GenericFill(db,params,static_cast<IfcSweptAreaSolid*>(in));
2926		// this data structure is not used yet, so there is no code generated to fill its members
2927		return base;
2928		}
2929		// -----------------------------------------------------------------------------------------------------------
2930		template <> size_t GenericFill<IfcCartesianTransformationOperator3D>(const DB& db, const LIST& params, IfcCartesianTransformationOperator3D* in)
2931		{
2932		size_t base = GenericFill(db,params,static_cast<IfcCartesianTransformationOperator*>(in));
2933		if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcCartesianTransformationOperator3D"); } do { // convert the 'Axis3' argument
2934		boost::shared_ptr<const DataType> arg = params[base++];
2935		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcCartesianTransformationOperator3D,1>::aux_is_derived[0]=true; break; }
2936		if (dynamic_cast<const UNSET>(&arg)) break;
2937		try { GenericConvert( in->Axis3, arg, db ); break; }
2938		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcCartesianTransformationOperator3D to be a `IfcDirection`")); }
2939		} while(0);
2940		return base;
2941		}
2942		// -----------------------------------------------------------------------------------------------------------
2943		template <> size_t GenericFill<IfcCartesianTransformationOperator3DnonUniform>(const DB& db, const LIST& params, IfcCartesianTransformationOperator3DnonUniform* in)
2944		{
2945		size_t base = GenericFill(db,params,static_cast<IfcCartesianTransformationOperator3D*>(in));
2946		if (params.GetSize() < 7) { throw STEP::TypeError("expected 7 arguments to IfcCartesianTransformationOperator3DnonUniform"); } do { // convert the 'Scale2' argument
2947		boost::shared_ptr<const DataType> arg = params[base++];
2948		if (dynamic_cast<const UNSET>(&arg)) break;
2949		try { GenericConvert( in->Scale2, arg, db ); break; }
2950		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcCartesianTransformationOperator3DnonUniform to be a `REAL`")); }
2951		} while(0);
2952		do { // convert the 'Scale3' argument
2953		boost::shared_ptr<const DataType> arg = params[base++];
2954		if (dynamic_cast<const UNSET>(&arg)) break;
2955		try { GenericConvert( in->Scale3, arg, db ); break; }
2956		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 6 to IfcCartesianTransformationOperator3DnonUniform to be a `REAL`")); }
2957		} while(0);
2958		return base;
2959		}
2960		// -----------------------------------------------------------------------------------------------------------
2961		template <> size_t GenericFill<IfcCrewResource>(const DB& db, const LIST& params, IfcCrewResource* in)
2962		{
2963		size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
2964		// this data structure is not used yet, so there is no code generated to fill its members
2965		return base;
2966		}
2967		// -----------------------------------------------------------------------------------------------------------
2968		template <> size_t GenericFill<IfcStructuralSurfaceMember>(const DB& db, const LIST& params, IfcStructuralSurfaceMember* in)
2969		{
2970		size_t base = GenericFill(db,params,static_cast<IfcStructuralMember*>(in));
2971		// this data structure is not used yet, so there is no code generated to fill its members
2972		return base;
2973		}
2974		// -----------------------------------------------------------------------------------------------------------
2975		template <> size_t GenericFill<Ifc2DCompositeCurve>(const DB& db, const LIST& params, Ifc2DCompositeCurve* in)
2976		{
2977		size_t base = GenericFill(db,params,static_cast<IfcCompositeCurve*>(in));
2978		// this data structure is not used yet, so there is no code generated to fill its members
2979		return base;
2980		}
2981		// -----------------------------------------------------------------------------------------------------------
2982		template <> size_t GenericFill<IfcRepresentationContext>(const DB& db, const LIST& params, IfcRepresentationContext* in)
2983		{
2984		size_t base = 0;
2985		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcRepresentationContext"); } do { // convert the 'ContextIdentifier' argument
2986		boost::shared_ptr<const DataType> arg = params[base++];
2987		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentationContext,2>::aux_is_derived[0]=true; break; }
2988		if (dynamic_cast<const UNSET>(&arg)) break;
2989		try { GenericConvert( in->ContextIdentifier, arg, db ); break; }
2990		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcRepresentationContext to be a `IfcLabel`")); }
2991		} while(0);
2992		do { // convert the 'ContextType' argument
2993		boost::shared_ptr<const DataType> arg = params[base++];
2994		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRepresentationContext,2>::aux_is_derived[1]=true; break; }
2995		if (dynamic_cast<const UNSET>(&arg)) break;
2996		try { GenericConvert( in->ContextType, arg, db ); break; }
2997		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcRepresentationContext to be a `IfcLabel`")); }
2998		} while(0);
2999		return base;
3000		}
3001		// -----------------------------------------------------------------------------------------------------------
3002		template <> size_t GenericFill<IfcGeometricRepresentationContext>(const DB& db, const LIST& params, IfcGeometricRepresentationContext* in)
3003		{
3004		size_t base = GenericFill(db,params,static_cast<IfcRepresentationContext*>(in));
3005		if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcGeometricRepresentationContext"); } do { // convert the 'CoordinateSpaceDimension' argument
3006		boost::shared_ptr<const DataType> arg = params[base++];
3007		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcGeometricRepresentationContext,4>::aux_is_derived[0]=true; break; }
3008		try { GenericConvert( in->CoordinateSpaceDimension, arg, db ); break; }
3009		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcGeometricRepresentationContext to be a `IfcDimensionCount`")); }
3010		} while(0);
3011		do { // convert the 'Precision' argument
3012		boost::shared_ptr<const DataType> arg = params[base++];
3013		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcGeometricRepresentationContext,4>::aux_is_derived[1]=true; break; }
3014		if (dynamic_cast<const UNSET>(&arg)) break;
3015		try { GenericConvert( in->Precision, arg, db ); break; }
3016		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcGeometricRepresentationContext to be a `REAL`")); }
3017		} while(0);
3018		do { // convert the 'WorldCoordinateSystem' argument
3019		boost::shared_ptr<const DataType> arg = params[base++];
3020		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcGeometricRepresentationContext,4>::aux_is_derived[2]=true; break; }
3021		try { GenericConvert( in->WorldCoordinateSystem, arg, db ); break; }
3022		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcGeometricRepresentationContext to be a `IfcAxis2Placement`")); }
3023		} while(0);
3024		do { // convert the 'TrueNorth' argument
3025		boost::shared_ptr<const DataType> arg = params[base++];
3026		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcGeometricRepresentationContext,4>::aux_is_derived[3]=true; break; }
3027		if (dynamic_cast<const UNSET>(&arg)) break;
3028		try { GenericConvert( in->TrueNorth, arg, db ); break; }
3029		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcGeometricRepresentationContext to be a `IfcDirection`")); }
3030		} while(0);
3031		return base;
3032		}
3033		// -----------------------------------------------------------------------------------------------------------
3034		template <> size_t GenericFill<IfcFlowTreatmentDevice>(const DB& db, const LIST& params, IfcFlowTreatmentDevice* in)
3035		{
3036		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
3037		// this data structure is not used yet, so there is no code generated to fill its members
3038		return base;
3039		}
3040		// -----------------------------------------------------------------------------------------------------------
3041		template <> size_t GenericFill<IfcRightCircularCylinder>(const DB& db, const LIST& params, IfcRightCircularCylinder* in)
3042		{
3043		size_t base = GenericFill(db,params,static_cast<IfcCsgPrimitive3D*>(in));
3044		// this data structure is not used yet, so there is no code generated to fill its members
3045		return base;
3046		}
3047		// -----------------------------------------------------------------------------------------------------------
3048		template <> size_t GenericFill<IfcWasteTerminalType>(const DB& db, const LIST& params, IfcWasteTerminalType* in)
3049		{
3050		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
3051		// this data structure is not used yet, so there is no code generated to fill its members
3052		return base;
3053		}
3054		// -----------------------------------------------------------------------------------------------------------
3055		template <> size_t GenericFill<IfcBuildingElementComponent>(const DB& db, const LIST& params, IfcBuildingElementComponent* in)
3056		{
3057		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
3058		// this data structure is not used yet, so there is no code generated to fill its members
3059		return base;
3060		}
3061		// -----------------------------------------------------------------------------------------------------------
3062		template <> size_t GenericFill<IfcBuildingElementPart>(const DB& db, const LIST& params, IfcBuildingElementPart* in)
3063		{
3064		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementComponent*>(in));
3065		// this data structure is not used yet, so there is no code generated to fill its members
3066		return base;
3067		}
3068		// -----------------------------------------------------------------------------------------------------------
3069		template <> size_t GenericFill<IfcWall>(const DB& db, const LIST& params, IfcWall* in)
3070		{
3071		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
3072		// this data structure is not used yet, so there is no code generated to fill its members
3073		return base;
3074		}
3075		// -----------------------------------------------------------------------------------------------------------
3076		template <> size_t GenericFill<IfcWallStandardCase>(const DB& db, const LIST& params, IfcWallStandardCase* in)
3077		{
3078		size_t base = GenericFill(db,params,static_cast<IfcWall*>(in));
3079		// this data structure is not used yet, so there is no code generated to fill its members
3080		return base;
3081		}
3082		// -----------------------------------------------------------------------------------------------------------
3083		template <> size_t GenericFill<IfcPath>(const DB& db, const LIST& params, IfcPath* in)
3084		{
3085		size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
3086		// this data structure is not used yet, so there is no code generated to fill its members
3087		return base;
3088		}
3089		// -----------------------------------------------------------------------------------------------------------
3090		template <> size_t GenericFill<IfcDefinedSymbol>(const DB& db, const LIST& params, IfcDefinedSymbol* in)
3091		{
3092		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
3093		// this data structure is not used yet, so there is no code generated to fill its members
3094		return base;
3095		}
3096		// -----------------------------------------------------------------------------------------------------------
3097		template <> size_t GenericFill<IfcStructuralSurfaceMemberVarying>(const DB& db, const LIST& params, IfcStructuralSurfaceMemberVarying* in)
3098		{
3099		size_t base = GenericFill(db,params,static_cast<IfcStructuralSurfaceMember*>(in));
3100		// this data structure is not used yet, so there is no code generated to fill its members
3101		return base;
3102		}
3103		// -----------------------------------------------------------------------------------------------------------
3104		template <> size_t GenericFill<IfcPoint>(const DB& db, const LIST& params, IfcPoint* in)
3105		{
3106		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
3107		return base;
3108		}
3109		// -----------------------------------------------------------------------------------------------------------
3110		template <> size_t GenericFill<IfcSurfaceOfRevolution>(const DB& db, const LIST& params, IfcSurfaceOfRevolution* in)
3111		{
3112		size_t base = GenericFill(db,params,static_cast<IfcSweptSurface*>(in));
3113		// this data structure is not used yet, so there is no code generated to fill its members
3114		return base;
3115		}
3116		// -----------------------------------------------------------------------------------------------------------
3117		template <> size_t GenericFill<IfcFlowTerminal>(const DB& db, const LIST& params, IfcFlowTerminal* in)
3118		{
3119		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
3120		// this data structure is not used yet, so there is no code generated to fill its members
3121		return base;
3122		}
3123		// -----------------------------------------------------------------------------------------------------------
3124		template <> size_t GenericFill<IfcFurnishingElement>(const DB& db, const LIST& params, IfcFurnishingElement* in)
3125		{
3126		size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
3127		// this data structure is not used yet, so there is no code generated to fill its members
3128		return base;
3129		}
3130		// -----------------------------------------------------------------------------------------------------------
3131		template <> size_t GenericFill<IfcSurfaceStyleShading>(const DB& db, const LIST& params, IfcSurfaceStyleShading* in)
3132		{
3133		size_t base = 0;
3134		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcSurfaceStyleShading"); } do { // convert the 'SurfaceColour' argument
3135		boost::shared_ptr<const DataType> arg = params[base++];
3136		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcSurfaceStyleShading,1>::aux_is_derived[0]=true; break; }
3137		try { GenericConvert( in->SurfaceColour, arg, db ); break; }
3138		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcSurfaceStyleShading to be a `IfcColourRgb`")); }
	4906	template <> size_t GenericFill<IfcTwoDirectionRepeatFactor>(const DB& db, const LIST& params, IfcTwoDirectionRepeatFactor* in)
	4907	{
	4908	size_t base = GenericFill(db,params,static_cast<IfcOneDirectionRepeatFactor*>(in));
	4909	// this data structure is not used yet, so there is no code generated to fill its members
	4910	return base;
	4911	}
	4912	// -----------------------------------------------------------------------------------------------------------
	4913	template <> size_t GenericFill<IfcShapeRepresentation>(const DB& db, const LIST& params, IfcShapeRepresentation* in)
	4914	{
	4915	size_t base = GenericFill(db,params,static_cast<IfcShapeModel*>(in));
	4916	// this data structure is not used yet, so there is no code generated to fill its members
	4917	return base;
	4918	}
	4919	// -----------------------------------------------------------------------------------------------------------
	4920	template <> size_t GenericFill<IfcPropertySet>(const DB& db, const LIST& params, IfcPropertySet* in)
	4921	{
	4922	size_t base = GenericFill(db,params,static_cast<IfcPropertySetDefinition*>(in));
	4923	if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcPropertySet"); } do { // convert the 'HasProperties' argument
	4924	boost::shared_ptr<const DataType> arg = params[base++];
	4925	try { GenericConvert( in->HasProperties, arg, db ); break; }
	4926	catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcPropertySet to be a `SET [1:?] OF IfcProperty`")); }
3139	4927	} while(0);
3140	4928	return base;
3141	4929	}

3193	4981	return base;
3194	4982	}
3195	4983	// -----------------------------------------------------------------------------------------------------------
3196		template <> size_t GenericFill<IfcCircleHollowProfileDef>(const DB& db, const LIST& params, IfcCircleHollowProfileDef* in)
3197		{
3198		size_t base = GenericFill(db,params,static_cast<IfcCircleProfileDef*>(in));
3199		if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcCircleHollowProfileDef"); } do { // convert the 'WallThickness' argument
3200		boost::shared_ptr<const DataType> arg = params[base++];
3201		try { GenericConvert( in->WallThickness, arg, db ); break; }
3202		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcCircleHollowProfileDef to be a `IfcPositiveLengthMeasure`")); }
3203		} while(0);
3204		return base;
3205		}
3206		// -----------------------------------------------------------------------------------------------------------
3207		template <> size_t GenericFill<IfcFlowMovingDeviceType>(const DB& db, const LIST& params, IfcFlowMovingDeviceType* in)
3208		{
3209		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
3210		// this data structure is not used yet, so there is no code generated to fill its members
3211		return base;
3212		}
3213		// -----------------------------------------------------------------------------------------------------------
3214		template <> size_t GenericFill<IfcFanType>(const DB& db, const LIST& params, IfcFanType* in)
3215		{
3216		size_t base = GenericFill(db,params,static_cast<IfcFlowMovingDeviceType*>(in));
3217		// this data structure is not used yet, so there is no code generated to fill its members
3218		return base;
3219		}
3220		// -----------------------------------------------------------------------------------------------------------
3221		template <> size_t GenericFill<IfcStructuralPlanarActionVarying>(const DB& db, const LIST& params, IfcStructuralPlanarActionVarying* in)
3222		{
3223		size_t base = GenericFill(db,params,static_cast<IfcStructuralPlanarAction*>(in));
3224		// this data structure is not used yet, so there is no code generated to fill its members
3225		return base;
3226		}
3227		// -----------------------------------------------------------------------------------------------------------
3228		template <> size_t GenericFill<IfcProductRepresentation>(const DB& db, const LIST& params, IfcProductRepresentation* in)
3229		{
3230		size_t base = 0;
3231		if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcProductRepresentation"); } do { // convert the 'Name' argument
3232		boost::shared_ptr<const DataType> arg = params[base++];
3233		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProductRepresentation,3>::aux_is_derived[0]=true; break; }
3234		if (dynamic_cast<const UNSET>(&arg)) break;
3235		try { GenericConvert( in->Name, arg, db ); break; }
3236		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcProductRepresentation to be a `IfcLabel`")); }
3237		} while(0);
3238		do { // convert the 'Description' argument
3239		boost::shared_ptr<const DataType> arg = params[base++];
3240		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProductRepresentation,3>::aux_is_derived[1]=true; break; }
3241		if (dynamic_cast<const UNSET>(&arg)) break;
3242		try { GenericConvert( in->Description, arg, db ); break; }
3243		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcProductRepresentation to be a `IfcText`")); }
3244		} while(0);
3245		do { // convert the 'Representations' argument
3246		boost::shared_ptr<const DataType> arg = params[base++];
3247		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcProductRepresentation,3>::aux_is_derived[2]=true; break; }
3248		try { GenericConvert( in->Representations, arg, db ); break; }
3249		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcProductRepresentation to be a `LIST [1:?] OF IfcRepresentation`")); }
3250		} while(0);
3251		return base;
3252		}
3253		// -----------------------------------------------------------------------------------------------------------
3254		template <> size_t GenericFill<IfcStackTerminalType>(const DB& db, const LIST& params, IfcStackTerminalType* in)
3255		{
3256		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
3257		// this data structure is not used yet, so there is no code generated to fill its members
3258		return base;
3259		}
3260		// -----------------------------------------------------------------------------------------------------------
3261		template <> size_t GenericFill<IfcReinforcingElement>(const DB& db, const LIST& params, IfcReinforcingElement* in)
3262		{
3263		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementComponent*>(in));
3264		// this data structure is not used yet, so there is no code generated to fill its members
3265		return base;
3266		}
3267		// -----------------------------------------------------------------------------------------------------------
3268		template <> size_t GenericFill<IfcReinforcingMesh>(const DB& db, const LIST& params, IfcReinforcingMesh* in)
3269		{
3270		size_t base = GenericFill(db,params,static_cast<IfcReinforcingElement*>(in));
3271		// this data structure is not used yet, so there is no code generated to fill its members
3272		return base;
3273		}
3274		// -----------------------------------------------------------------------------------------------------------
3275		template <> size_t GenericFill<IfcOrderAction>(const DB& db, const LIST& params, IfcOrderAction* in)
3276		{
3277		size_t base = GenericFill(db,params,static_cast<IfcTask*>(in));
3278		// this data structure is not used yet, so there is no code generated to fill its members
3279		return base;
3280		}
3281		// -----------------------------------------------------------------------------------------------------------
3282		template <> size_t GenericFill<IfcLightSource>(const DB& db, const LIST& params, IfcLightSource* in)
3283		{
3284		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
3285		// this data structure is not used yet, so there is no code generated to fill its members
3286		return base;
3287		}
3288		// -----------------------------------------------------------------------------------------------------------
3289		template <> size_t GenericFill<IfcLightSourceDirectional>(const DB& db, const LIST& params, IfcLightSourceDirectional* in)
3290		{
3291		size_t base = GenericFill(db,params,static_cast<IfcLightSource*>(in));
3292		// this data structure is not used yet, so there is no code generated to fill its members
3293		return base;
3294		}
3295		// -----------------------------------------------------------------------------------------------------------
3296		template <> size_t GenericFill<IfcLoop>(const DB& db, const LIST& params, IfcLoop* in)
3297		{
3298		size_t base = GenericFill(db,params,static_cast<IfcTopologicalRepresentationItem*>(in));
3299		return base;
3300		}
3301		// -----------------------------------------------------------------------------------------------------------
3302		template <> size_t GenericFill<IfcVertexLoop>(const DB& db, const LIST& params, IfcVertexLoop* in)
3303		{
3304		size_t base = GenericFill(db,params,static_cast<IfcLoop*>(in));
3305		// this data structure is not used yet, so there is no code generated to fill its members
3306		return base;
3307		}
3308		// -----------------------------------------------------------------------------------------------------------
3309		template <> size_t GenericFill<IfcChamferEdgeFeature>(const DB& db, const LIST& params, IfcChamferEdgeFeature* in)
3310		{
3311		size_t base = GenericFill(db,params,static_cast<IfcEdgeFeature*>(in));
3312		// this data structure is not used yet, so there is no code generated to fill its members
3313		return base;
3314		}
3315		// -----------------------------------------------------------------------------------------------------------
3316		template <> size_t GenericFill<IfcElementComponentType>(const DB& db, const LIST& params, IfcElementComponentType* in)
3317		{
3318		size_t base = GenericFill(db,params,static_cast<IfcElementType*>(in));
3319		// this data structure is not used yet, so there is no code generated to fill its members
3320		return base;
3321		}
3322		// -----------------------------------------------------------------------------------------------------------
3323		template <> size_t GenericFill<IfcFastenerType>(const DB& db, const LIST& params, IfcFastenerType* in)
3324		{
3325		size_t base = GenericFill(db,params,static_cast<IfcElementComponentType*>(in));
3326		// this data structure is not used yet, so there is no code generated to fill its members
3327		return base;
3328		}
3329		// -----------------------------------------------------------------------------------------------------------
3330		template <> size_t GenericFill<IfcMechanicalFastenerType>(const DB& db, const LIST& params, IfcMechanicalFastenerType* in)
3331		{
3332		size_t base = GenericFill(db,params,static_cast<IfcFastenerType*>(in));
3333		// this data structure is not used yet, so there is no code generated to fill its members
3334		return base;
3335		}
3336		// -----------------------------------------------------------------------------------------------------------
3337		template <> size_t GenericFill<IfcScheduleTimeControl>(const DB& db, const LIST& params, IfcScheduleTimeControl* in)
	4984	template <> size_t GenericFill<IfcDistributionPort>(const DB& db, const LIST& params, IfcDistributionPort* in)
	4985	{
	4986	size_t base = GenericFill(db,params,static_cast<IfcPort*>(in));
	4987	// this data structure is not used yet, so there is no code generated to fill its members
	4988	return base;
	4989	}
	4990	// -----------------------------------------------------------------------------------------------------------
	4991	template <> size_t GenericFill<IfcPipeFittingType>(const DB& db, const LIST& params, IfcPipeFittingType* in)
	4992	{
	4993	size_t base = GenericFill(db,params,static_cast<IfcFlowFittingType*>(in));
	4994	// this data structure is not used yet, so there is no code generated to fill its members
	4995	return base;
	4996	}
	4997	// -----------------------------------------------------------------------------------------------------------
	4998	template <> size_t GenericFill<IfcTransportElement>(const DB& db, const LIST& params, IfcTransportElement* in)
	4999	{
	5000	size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
	5001	// this data structure is not used yet, so there is no code generated to fill its members
	5002	return base;
	5003	}
	5004	// -----------------------------------------------------------------------------------------------------------
	5005	template <> size_t GenericFill<IfcAnnotationTextOccurrence>(const DB& db, const LIST& params, IfcAnnotationTextOccurrence* in)
	5006	{
	5007	size_t base = GenericFill(db,params,static_cast<IfcAnnotationOccurrence*>(in));
	5008	// this data structure is not used yet, so there is no code generated to fill its members
	5009	return base;
	5010	}
	5011	// -----------------------------------------------------------------------------------------------------------
	5012	template <> size_t GenericFill<IfcStructuralAnalysisModel>(const DB& db, const LIST& params, IfcStructuralAnalysisModel* in)
	5013	{
	5014	size_t base = GenericFill(db,params,static_cast<IfcSystem*>(in));
	5015	// this data structure is not used yet, so there is no code generated to fill its members
	5016	return base;
	5017	}
	5018	// -----------------------------------------------------------------------------------------------------------
	5019	template <> size_t GenericFill<IfcConditionCriterion>(const DB& db, const LIST& params, IfcConditionCriterion* in)
3338	5020	{
3339	5021	size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
3340	5022	// this data structure is not used yet, so there is no code generated to fill its members
3341		return base;
3342		}
3343		// -----------------------------------------------------------------------------------------------------------
3344		template <> size_t GenericFill<IfcSurfaceStyle>(const DB& db, const LIST& params, IfcSurfaceStyle* in)
3345		{
3346		size_t base = GenericFill(db,params,static_cast<IfcPresentationStyle*>(in));
3347		if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcSurfaceStyle"); } do { // convert the 'Side' argument
3348		boost::shared_ptr<const DataType> arg = params[base++];
3349		try { GenericConvert( in->Side, arg, db ); break; }
3350		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcSurfaceStyle to be a `IfcSurfaceSide`")); }
3351		} while(0);
3352		do { // convert the 'Styles' argument
3353		boost::shared_ptr<const DataType> arg = params[base++];
3354		try { GenericConvert( in->Styles, arg, db ); break; }
3355		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcSurfaceStyle to be a `SET [1:5] OF IfcSurfaceStyleElementSelect`")); }
3356		} while(0);
3357		return base;
3358		}
3359		// -----------------------------------------------------------------------------------------------------------
3360		template <> size_t GenericFill<IfcOpenShell>(const DB& db, const LIST& params, IfcOpenShell* in)
3361		{
3362		size_t base = GenericFill(db,params,static_cast<IfcConnectedFaceSet*>(in));
3363		// this data structure is not used yet, so there is no code generated to fill its members
3364		return base;
3365		}
3366		// -----------------------------------------------------------------------------------------------------------
3367		template <> size_t GenericFill<IfcSubContractResource>(const DB& db, const LIST& params, IfcSubContractResource* in)
3368		{
3369		size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
3370		// this data structure is not used yet, so there is no code generated to fill its members
3371		return base;
3372		}
3373		// -----------------------------------------------------------------------------------------------------------
3374		template <> size_t GenericFill<IfcSweptDiskSolid>(const DB& db, const LIST& params, IfcSweptDiskSolid* in)
3375		{
3376		size_t base = GenericFill(db,params,static_cast<IfcSolidModel*>(in));
3377		// this data structure is not used yet, so there is no code generated to fill its members
3378		return base;
3379		}
3380		// -----------------------------------------------------------------------------------------------------------
3381		template <> size_t GenericFill<IfcCompositeProfileDef>(const DB& db, const LIST& params, IfcCompositeProfileDef* in)
3382		{
3383		size_t base = GenericFill(db,params,static_cast<IfcProfileDef*>(in));
3384		// this data structure is not used yet, so there is no code generated to fill its members
3385		return base;
3386		}
3387		// -----------------------------------------------------------------------------------------------------------
3388		template <> size_t GenericFill<IfcTankType>(const DB& db, const LIST& params, IfcTankType* in)
3389		{
3390		size_t base = GenericFill(db,params,static_cast<IfcFlowStorageDeviceType*>(in));
3391		// this data structure is not used yet, so there is no code generated to fill its members
3392		return base;
3393		}
3394		// -----------------------------------------------------------------------------------------------------------
3395		template <> size_t GenericFill<IfcSphere>(const DB& db, const LIST& params, IfcSphere* in)
3396		{
3397		size_t base = GenericFill(db,params,static_cast<IfcCsgPrimitive3D*>(in));
3398		// this data structure is not used yet, so there is no code generated to fill its members
3399		return base;
3400		}
3401		// -----------------------------------------------------------------------------------------------------------
3402		template <> size_t GenericFill<IfcPolyLoop>(const DB& db, const LIST& params, IfcPolyLoop* in)
3403		{
3404		size_t base = GenericFill(db,params,static_cast<IfcLoop*>(in));
3405		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPolyLoop"); } do { // convert the 'Polygon' argument
3406		boost::shared_ptr<const DataType> arg = params[base++];
3407		try { GenericConvert( in->Polygon, arg, db ); break; }
3408		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcPolyLoop to be a `LIST [3:?] OF IfcCartesianPoint`")); }
3409		} while(0);
3410		return base;
3411		}
3412		// -----------------------------------------------------------------------------------------------------------
3413		template <> size_t GenericFill<IfcCableCarrierFittingType>(const DB& db, const LIST& params, IfcCableCarrierFittingType* in)
3414		{
3415		size_t base = GenericFill(db,params,static_cast<IfcFlowFittingType*>(in));
3416		// this data structure is not used yet, so there is no code generated to fill its members
3417		return base;
3418		}
3419		// -----------------------------------------------------------------------------------------------------------
3420		template <> size_t GenericFill<IfcHumidifierType>(const DB& db, const LIST& params, IfcHumidifierType* in)
3421		{
3422		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
3423		// this data structure is not used yet, so there is no code generated to fill its members
3424		return base;
3425		}
3426		// -----------------------------------------------------------------------------------------------------------
3427		template <> size_t GenericFill<IfcPerformanceHistory>(const DB& db, const LIST& params, IfcPerformanceHistory* in)
3428		{
3429		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
3430		// this data structure is not used yet, so there is no code generated to fill its members
3431		return base;
3432		}
3433		// -----------------------------------------------------------------------------------------------------------
3434		template <> size_t GenericFill<IfcShapeModel>(const DB& db, const LIST& params, IfcShapeModel* in)
3435		{
3436		size_t base = GenericFill(db,params,static_cast<IfcRepresentation*>(in));
3437		// this data structure is not used yet, so there is no code generated to fill its members
3438		return base;
3439		}
3440		// -----------------------------------------------------------------------------------------------------------
3441		template <> size_t GenericFill<IfcTopologyRepresentation>(const DB& db, const LIST& params, IfcTopologyRepresentation* in)
3442		{
3443		size_t base = GenericFill(db,params,static_cast<IfcShapeModel*>(in));
3444		// this data structure is not used yet, so there is no code generated to fill its members
3445		return base;
3446		}
3447		// -----------------------------------------------------------------------------------------------------------
3448		template <> size_t GenericFill<IfcBuilding>(const DB& db, const LIST& params, IfcBuilding* in)
3449		{
3450		size_t base = GenericFill(db,params,static_cast<IfcSpatialStructureElement*>(in));
3451		if (params.GetSize() < 12) { throw STEP::TypeError("expected 12 arguments to IfcBuilding"); } do { // convert the 'ElevationOfRefHeight' argument
3452		boost::shared_ptr<const DataType> arg = params[base++];
3453		if (dynamic_cast<const UNSET>(&arg)) break;
3454		try { GenericConvert( in->ElevationOfRefHeight, arg, db ); break; }
3455		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 9 to IfcBuilding to be a `IfcLengthMeasure`")); }
3456		} while(0);
3457		do { // convert the 'ElevationOfTerrain' argument
3458		boost::shared_ptr<const DataType> arg = params[base++];
3459		if (dynamic_cast<const UNSET>(&arg)) break;
3460		try { GenericConvert( in->ElevationOfTerrain, arg, db ); break; }
3461		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 10 to IfcBuilding to be a `IfcLengthMeasure`")); }
3462		} while(0);
3463		do { // convert the 'BuildingAddress' argument
3464		boost::shared_ptr<const DataType> arg = params[base++];
3465		if (dynamic_cast<const UNSET>(&arg)) break;
3466		try { GenericConvert( in->BuildingAddress, arg, db ); break; }
3467		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 11 to IfcBuilding to be a `IfcPostalAddress`")); }
3468		} while(0);
3469		return base;
3470		}
3471		// -----------------------------------------------------------------------------------------------------------
3472		template <> size_t GenericFill<IfcRoundedRectangleProfileDef>(const DB& db, const LIST& params, IfcRoundedRectangleProfileDef* in)
3473		{
3474		size_t base = GenericFill(db,params,static_cast<IfcRectangleProfileDef*>(in));
3475		// this data structure is not used yet, so there is no code generated to fill its members
3476		return base;
3477		}
3478		// -----------------------------------------------------------------------------------------------------------
3479		template <> size_t GenericFill<IfcStairFlight>(const DB& db, const LIST& params, IfcStairFlight* in)
3480		{
3481		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
3482		// this data structure is not used yet, so there is no code generated to fill its members
3483		return base;
3484		}
3485		// -----------------------------------------------------------------------------------------------------------
3486		template <> size_t GenericFill<IfcDistributionChamberElement>(const DB& db, const LIST& params, IfcDistributionChamberElement* in)
3487		{
3488		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
3489		// this data structure is not used yet, so there is no code generated to fill its members
3490		return base;
3491		}
3492		// -----------------------------------------------------------------------------------------------------------
3493		template <> size_t GenericFill<IfcShapeRepresentation>(const DB& db, const LIST& params, IfcShapeRepresentation* in)
3494		{
3495		size_t base = GenericFill(db,params,static_cast<IfcShapeModel*>(in));
3496		// this data structure is not used yet, so there is no code generated to fill its members
3497		return base;
3498		}
3499		// -----------------------------------------------------------------------------------------------------------
3500		template <> size_t GenericFill<IfcRampFlight>(const DB& db, const LIST& params, IfcRampFlight* in)
3501		{
3502		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
3503		// this data structure is not used yet, so there is no code generated to fill its members
3504		return base;
3505		}
3506		// -----------------------------------------------------------------------------------------------------------
3507		template <> size_t GenericFill<IfcBeamType>(const DB& db, const LIST& params, IfcBeamType* in)
3508		{
3509		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
3510		// this data structure is not used yet, so there is no code generated to fill its members
3511		return base;
3512		}
3513		// -----------------------------------------------------------------------------------------------------------
3514		template <> size_t GenericFill<IfcRelDecomposes>(const DB& db, const LIST& params, IfcRelDecomposes* in)
3515		{
3516		size_t base = GenericFill(db,params,static_cast<IfcRelationship*>(in));
3517		if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelDecomposes"); } do { // convert the 'RelatingObject' argument
3518		boost::shared_ptr<const DataType> arg = params[base++];
3519		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRelDecomposes,2>::aux_is_derived[0]=true; break; }
3520		try { GenericConvert( in->RelatingObject, arg, db ); break; }
3521		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRelDecomposes to be a `IfcObjectDefinition`")); }
3522		} while(0);
3523		do { // convert the 'RelatedObjects' argument
3524		boost::shared_ptr<const DataType> arg = params[base++];
3525		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcRelDecomposes,2>::aux_is_derived[1]=true; break; }
3526		try { GenericConvert( in->RelatedObjects, arg, db ); break; }
3527		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcRelDecomposes to be a `SET [1:?] OF IfcObjectDefinition`")); }
3528		} while(0);
3529		return base;
3530		}
3531		// -----------------------------------------------------------------------------------------------------------
3532		template <> size_t GenericFill<IfcRoof>(const DB& db, const LIST& params, IfcRoof* in)
3533		{
3534		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
3535		// this data structure is not used yet, so there is no code generated to fill its members
3536		return base;
3537		}
3538		// -----------------------------------------------------------------------------------------------------------
3539		template <> size_t GenericFill<IfcFooting>(const DB& db, const LIST& params, IfcFooting* in)
3540		{
3541		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
3542		// this data structure is not used yet, so there is no code generated to fill its members
3543		return base;
3544		}
3545		// -----------------------------------------------------------------------------------------------------------
3546		template <> size_t GenericFill<IfcLightSourceAmbient>(const DB& db, const LIST& params, IfcLightSourceAmbient* in)
3547		{
3548		size_t base = GenericFill(db,params,static_cast<IfcLightSource*>(in));
3549		// this data structure is not used yet, so there is no code generated to fill its members
3550		return base;
3551		}
3552		// -----------------------------------------------------------------------------------------------------------
3553		template <> size_t GenericFill<IfcWindowStyle>(const DB& db, const LIST& params, IfcWindowStyle* in)
3554		{
3555		size_t base = GenericFill(db,params,static_cast<IfcTypeProduct*>(in));
3556		// this data structure is not used yet, so there is no code generated to fill its members
3557		return base;
3558		}
3559		// -----------------------------------------------------------------------------------------------------------
3560		template <> size_t GenericFill<IfcBuildingElementProxyType>(const DB& db, const LIST& params, IfcBuildingElementProxyType* in)
3561		{
3562		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
3563		// this data structure is not used yet, so there is no code generated to fill its members
3564		return base;
3565		}
3566		// -----------------------------------------------------------------------------------------------------------
3567		template <> size_t GenericFill<IfcAxis2Placement3D>(const DB& db, const LIST& params, IfcAxis2Placement3D* in)
3568		{
3569		size_t base = GenericFill(db,params,static_cast<IfcPlacement*>(in));
3570		if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcAxis2Placement3D"); } do { // convert the 'Axis' argument
3571		boost::shared_ptr<const DataType> arg = params[base++];
3572		if (dynamic_cast<const UNSET>(&arg)) break;
3573		try { GenericConvert( in->Axis, arg, db ); break; }
3574		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcAxis2Placement3D to be a `IfcDirection`")); }
3575		} while(0);
3576		do { // convert the 'RefDirection' argument
3577		boost::shared_ptr<const DataType> arg = params[base++];
3578		if (dynamic_cast<const UNSET>(&arg)) break;
3579		try { GenericConvert( in->RefDirection, arg, db ); break; }
3580		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcAxis2Placement3D to be a `IfcDirection`")); }
3581		} while(0);
3582		return base;
3583		}
3584		// -----------------------------------------------------------------------------------------------------------
3585		template <> size_t GenericFill<IfcEdgeCurve>(const DB& db, const LIST& params, IfcEdgeCurve* in)
3586		{
3587		size_t base = GenericFill(db,params,static_cast<IfcEdge*>(in));
3588		// this data structure is not used yet, so there is no code generated to fill its members
3589		return base;
3590		}
3591		// -----------------------------------------------------------------------------------------------------------
3592		template <> size_t GenericFill<IfcClosedShell>(const DB& db, const LIST& params, IfcClosedShell* in)
3593		{
3594		size_t base = GenericFill(db,params,static_cast<IfcConnectedFaceSet*>(in));
3595		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcClosedShell"); } return base;
3596		}
3597		// -----------------------------------------------------------------------------------------------------------
3598		template <> size_t GenericFill<IfcTendonAnchor>(const DB& db, const LIST& params, IfcTendonAnchor* in)
3599		{
3600		size_t base = GenericFill(db,params,static_cast<IfcReinforcingElement*>(in));
3601		// this data structure is not used yet, so there is no code generated to fill its members
3602		return base;
3603		}
3604		// -----------------------------------------------------------------------------------------------------------
3605		template <> size_t GenericFill<IfcCondenserType>(const DB& db, const LIST& params, IfcCondenserType* in)
3606		{
3607		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
3608		// this data structure is not used yet, so there is no code generated to fill its members
3609		return base;
3610		}
3611		// -----------------------------------------------------------------------------------------------------------
3612		template <> size_t GenericFill<IfcPipeSegmentType>(const DB& db, const LIST& params, IfcPipeSegmentType* in)
3613		{
3614		size_t base = GenericFill(db,params,static_cast<IfcFlowSegmentType*>(in));
3615		// this data structure is not used yet, so there is no code generated to fill its members
3616		return base;
3617		}
3618		// -----------------------------------------------------------------------------------------------------------
3619		template <> size_t GenericFill<IfcPointOnSurface>(const DB& db, const LIST& params, IfcPointOnSurface* in)
3620		{
3621		size_t base = GenericFill(db,params,static_cast<IfcPoint*>(in));
3622		// this data structure is not used yet, so there is no code generated to fill its members
3623		return base;
3624		}
3625		// -----------------------------------------------------------------------------------------------------------
3626		template <> size_t GenericFill<IfcAsset>(const DB& db, const LIST& params, IfcAsset* in)
3627		{
3628		size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
3629		// this data structure is not used yet, so there is no code generated to fill its members
3630		return base;
3631		}
3632		// -----------------------------------------------------------------------------------------------------------
3633		template <> size_t GenericFill<IfcLightSourcePositional>(const DB& db, const LIST& params, IfcLightSourcePositional* in)
3634		{
3635		size_t base = GenericFill(db,params,static_cast<IfcLightSource*>(in));
3636		// this data structure is not used yet, so there is no code generated to fill its members
3637		return base;
3638		}
3639		// -----------------------------------------------------------------------------------------------------------
3640		template <> size_t GenericFill<IfcProjectionCurve>(const DB& db, const LIST& params, IfcProjectionCurve* in)
3641		{
3642		size_t base = GenericFill(db,params,static_cast<IfcAnnotationCurveOccurrence*>(in));
3643		// this data structure is not used yet, so there is no code generated to fill its members
3644		return base;
3645		}
3646		// -----------------------------------------------------------------------------------------------------------
3647		template <> size_t GenericFill<IfcFillAreaStyleTiles>(const DB& db, const LIST& params, IfcFillAreaStyleTiles* in)
3648		{
3649		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
3650		// this data structure is not used yet, so there is no code generated to fill its members
3651		return base;
3652		}
3653		// -----------------------------------------------------------------------------------------------------------
3654		template <> size_t GenericFill<IfcRelFillsElement>(const DB& db, const LIST& params, IfcRelFillsElement* in)
3655		{
3656		size_t base = GenericFill(db,params,static_cast<IfcRelConnects*>(in));
3657		if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelFillsElement"); } do { // convert the 'RelatingOpeningElement' argument
3658		boost::shared_ptr<const DataType> arg = params[base++];
3659		try { GenericConvert( in->RelatingOpeningElement, arg, db ); break; }
3660		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRelFillsElement to be a `IfcOpeningElement`")); }
3661		} while(0);
3662		do { // convert the 'RelatedBuildingElement' argument
3663		boost::shared_ptr<const DataType> arg = params[base++];
3664		try { GenericConvert( in->RelatedBuildingElement, arg, db ); break; }
3665		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcRelFillsElement to be a `IfcElement`")); }
3666		} while(0);
3667		return base;
3668		}
3669		// -----------------------------------------------------------------------------------------------------------
3670		template <> size_t GenericFill<IfcElectricMotorType>(const DB& db, const LIST& params, IfcElectricMotorType* in)
3671		{
3672		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
3673		// this data structure is not used yet, so there is no code generated to fill its members
3674		return base;
3675		}
3676		// -----------------------------------------------------------------------------------------------------------
3677		template <> size_t GenericFill<IfcTendon>(const DB& db, const LIST& params, IfcTendon* in)
3678		{
3679		size_t base = GenericFill(db,params,static_cast<IfcReinforcingElement*>(in));
3680		// this data structure is not used yet, so there is no code generated to fill its members
3681		return base;
3682		}
3683		// -----------------------------------------------------------------------------------------------------------
3684		template <> size_t GenericFill<IfcDistributionChamberElementType>(const DB& db, const LIST& params, IfcDistributionChamberElementType* in)
3685		{
3686		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElementType*>(in));
3687		// this data structure is not used yet, so there is no code generated to fill its members
3688		return base;
3689		}
3690		// -----------------------------------------------------------------------------------------------------------
3691		template <> size_t GenericFill<IfcMemberType>(const DB& db, const LIST& params, IfcMemberType* in)
3692		{
3693		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
3694		// this data structure is not used yet, so there is no code generated to fill its members
3695		return base;
3696		}
3697		// -----------------------------------------------------------------------------------------------------------
3698		template <> size_t GenericFill<IfcStructuralLinearAction>(const DB& db, const LIST& params, IfcStructuralLinearAction* in)
3699		{
3700		size_t base = GenericFill(db,params,static_cast<IfcStructuralAction*>(in));
3701		// this data structure is not used yet, so there is no code generated to fill its members
3702		return base;
3703		}
3704		// -----------------------------------------------------------------------------------------------------------
3705		template <> size_t GenericFill<IfcStructuralLinearActionVarying>(const DB& db, const LIST& params, IfcStructuralLinearActionVarying* in)
3706		{
3707		size_t base = GenericFill(db,params,static_cast<IfcStructuralLinearAction*>(in));
3708		// this data structure is not used yet, so there is no code generated to fill its members
3709		return base;
3710		}
3711		// -----------------------------------------------------------------------------------------------------------
3712		template <> size_t GenericFill<IfcProductDefinitionShape>(const DB& db, const LIST& params, IfcProductDefinitionShape* in)
3713		{
3714		size_t base = GenericFill(db,params,static_cast<IfcProductRepresentation*>(in));
3715		// this data structure is not used yet, so there is no code generated to fill its members
3716		return base;
3717		}
3718		// -----------------------------------------------------------------------------------------------------------
3719		template <> size_t GenericFill<IfcFastener>(const DB& db, const LIST& params, IfcFastener* in)
3720		{
3721		size_t base = GenericFill(db,params,static_cast<IfcElementComponent*>(in));
3722		// this data structure is not used yet, so there is no code generated to fill its members
3723		return base;
3724		}
3725		// -----------------------------------------------------------------------------------------------------------
3726		template <> size_t GenericFill<IfcMechanicalFastener>(const DB& db, const LIST& params, IfcMechanicalFastener* in)
3727		{
3728		size_t base = GenericFill(db,params,static_cast<IfcFastener*>(in));
3729		// this data structure is not used yet, so there is no code generated to fill its members
3730		return base;
3731		}
3732		// -----------------------------------------------------------------------------------------------------------
3733		template <> size_t GenericFill<IfcEvaporatorType>(const DB& db, const LIST& params, IfcEvaporatorType* in)
3734		{
3735		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
3736		// this data structure is not used yet, so there is no code generated to fill its members
3737		return base;
3738		}
3739		// -----------------------------------------------------------------------------------------------------------
3740		template <> size_t GenericFill<IfcDiscreteAccessoryType>(const DB& db, const LIST& params, IfcDiscreteAccessoryType* in)
3741		{
3742		size_t base = GenericFill(db,params,static_cast<IfcElementComponentType*>(in));
3743		// this data structure is not used yet, so there is no code generated to fill its members
3744		return base;
3745		}
3746		// -----------------------------------------------------------------------------------------------------------
3747		template <> size_t GenericFill<IfcStructuralCurveConnection>(const DB& db, const LIST& params, IfcStructuralCurveConnection* in)
3748		{
3749		size_t base = GenericFill(db,params,static_cast<IfcStructuralConnection*>(in));
3750		// this data structure is not used yet, so there is no code generated to fill its members
3751		return base;
3752		}
3753		// -----------------------------------------------------------------------------------------------------------
3754		template <> size_t GenericFill<IfcProjectionElement>(const DB& db, const LIST& params, IfcProjectionElement* in)
3755		{
3756		size_t base = GenericFill(db,params,static_cast<IfcFeatureElementAddition*>(in));
3757		// this data structure is not used yet, so there is no code generated to fill its members
3758		return base;
3759		}
3760		// -----------------------------------------------------------------------------------------------------------
3761		template <> size_t GenericFill<IfcCoveringType>(const DB& db, const LIST& params, IfcCoveringType* in)
3762		{
3763		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
3764		// this data structure is not used yet, so there is no code generated to fill its members
3765		return base;
3766		}
3767		// -----------------------------------------------------------------------------------------------------------
3768		template <> size_t GenericFill<IfcPumpType>(const DB& db, const LIST& params, IfcPumpType* in)
3769		{
3770		size_t base = GenericFill(db,params,static_cast<IfcFlowMovingDeviceType*>(in));
3771		// this data structure is not used yet, so there is no code generated to fill its members
3772		return base;
3773		}
3774		// -----------------------------------------------------------------------------------------------------------
3775		template <> size_t GenericFill<IfcPile>(const DB& db, const LIST& params, IfcPile* in)
3776		{
3777		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
3778		// this data structure is not used yet, so there is no code generated to fill its members
3779		return base;
3780		}
3781		// -----------------------------------------------------------------------------------------------------------
3782		template <> size_t GenericFill<IfcUnitAssignment>(const DB& db, const LIST& params, IfcUnitAssignment* in)
3783		{
3784		size_t base = 0;
3785		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcUnitAssignment"); } do { // convert the 'Units' argument
3786		boost::shared_ptr<const DataType> arg = params[base++];
3787		try { GenericConvert( in->Units, arg, db ); break; }
3788		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcUnitAssignment to be a `SET [1:?] OF IfcUnit`")); }
3789		} while(0);
3790		return base;
3791		}
3792		// -----------------------------------------------------------------------------------------------------------
3793		template <> size_t GenericFill<IfcBoundingBox>(const DB& db, const LIST& params, IfcBoundingBox* in)
3794		{
3795		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
3796		if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcBoundingBox"); } do { // convert the 'Corner' argument
3797		boost::shared_ptr<const DataType> arg = params[base++];
3798		try { GenericConvert( in->Corner, arg, db ); break; }
3799		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcBoundingBox to be a `IfcCartesianPoint`")); }
3800		} while(0);
3801		do { // convert the 'XDim' argument
3802		boost::shared_ptr<const DataType> arg = params[base++];
3803		try { GenericConvert( in->XDim, arg, db ); break; }
3804		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcBoundingBox to be a `IfcPositiveLengthMeasure`")); }
3805		} while(0);
3806		do { // convert the 'YDim' argument
3807		boost::shared_ptr<const DataType> arg = params[base++];
3808		try { GenericConvert( in->YDim, arg, db ); break; }
3809		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcBoundingBox to be a `IfcPositiveLengthMeasure`")); }
3810		} while(0);
3811		do { // convert the 'ZDim' argument
3812		boost::shared_ptr<const DataType> arg = params[base++];
3813		try { GenericConvert( in->ZDim, arg, db ); break; }
3814		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcBoundingBox to be a `IfcPositiveLengthMeasure`")); }
3815		} while(0);
3816		return base;
3817		}
3818		// -----------------------------------------------------------------------------------------------------------
3819		template <> size_t GenericFill<IfcShellBasedSurfaceModel>(const DB& db, const LIST& params, IfcShellBasedSurfaceModel* in)
3820		{
3821		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
3822		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcShellBasedSurfaceModel"); } do { // convert the 'SbsmBoundary' argument
3823		boost::shared_ptr<const DataType> arg = params[base++];
3824		try { GenericConvert( in->SbsmBoundary, arg, db ); break; }
3825		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcShellBasedSurfaceModel to be a `SET [1:?] OF IfcShell`")); }
3826		} while(0);
3827		return base;
3828		}
3829		// -----------------------------------------------------------------------------------------------------------
3830		template <> size_t GenericFill<IfcFacetedBrep>(const DB& db, const LIST& params, IfcFacetedBrep* in)
3831		{
3832		size_t base = GenericFill(db,params,static_cast<IfcManifoldSolidBrep*>(in));
3833		// this data structure is not used yet, so there is no code generated to fill its members
3834		return base;
3835		}
3836		// -----------------------------------------------------------------------------------------------------------
3837		template <> size_t GenericFill<IfcTextLiteralWithExtent>(const DB& db, const LIST& params, IfcTextLiteralWithExtent* in)
3838		{
3839		size_t base = GenericFill(db,params,static_cast<IfcTextLiteral*>(in));
3840		// this data structure is not used yet, so there is no code generated to fill its members
3841		return base;
3842		}
3843		// -----------------------------------------------------------------------------------------------------------
3844		template <> size_t GenericFill<IfcElectricApplianceType>(const DB& db, const LIST& params, IfcElectricApplianceType* in)
3845		{
3846		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
3847		// this data structure is not used yet, so there is no code generated to fill its members
3848		return base;
3849		}
3850		// -----------------------------------------------------------------------------------------------------------
3851		template <> size_t GenericFill<IfcTrapeziumProfileDef>(const DB& db, const LIST& params, IfcTrapeziumProfileDef* in)
3852		{
3853		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
3854		// this data structure is not used yet, so there is no code generated to fill its members
3855		return base;
3856		}
3857		// -----------------------------------------------------------------------------------------------------------
3858		template <> size_t GenericFill<IfcRelContainedInSpatialStructure>(const DB& db, const LIST& params, IfcRelContainedInSpatialStructure* in)
3859		{
3860		size_t base = GenericFill(db,params,static_cast<IfcRelConnects*>(in));
3861		if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelContainedInSpatialStructure"); } do { // convert the 'RelatedElements' argument
3862		boost::shared_ptr<const DataType> arg = params[base++];
3863		try { GenericConvert( in->RelatedElements, arg, db ); break; }
3864		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcRelContainedInSpatialStructure to be a `SET [1:?] OF IfcProduct`")); }
3865		} while(0);
3866		do { // convert the 'RelatingStructure' argument
3867		boost::shared_ptr<const DataType> arg = params[base++];
3868		try { GenericConvert( in->RelatingStructure, arg, db ); break; }
3869		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcRelContainedInSpatialStructure to be a `IfcSpatialStructureElement`")); }
3870		} while(0);
3871		return base;
3872		}
3873		// -----------------------------------------------------------------------------------------------------------
3874		template <> size_t GenericFill<IfcEdgeLoop>(const DB& db, const LIST& params, IfcEdgeLoop* in)
3875		{
3876		size_t base = GenericFill(db,params,static_cast<IfcLoop*>(in));
3877		// this data structure is not used yet, so there is no code generated to fill its members
3878		return base;
3879		}
3880		// -----------------------------------------------------------------------------------------------------------
3881		template <> size_t GenericFill<IfcProject>(const DB& db, const LIST& params, IfcProject* in)
3882		{
3883		size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
3884		if (params.GetSize() < 9) { throw STEP::TypeError("expected 9 arguments to IfcProject"); } do { // convert the 'LongName' argument
3885		boost::shared_ptr<const DataType> arg = params[base++];
3886		if (dynamic_cast<const UNSET>(&arg)) break;
3887		try { GenericConvert( in->LongName, arg, db ); break; }
3888		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 5 to IfcProject to be a `IfcLabel`")); }
3889		} while(0);
3890		do { // convert the 'Phase' argument
3891		boost::shared_ptr<const DataType> arg = params[base++];
3892		if (dynamic_cast<const UNSET>(&arg)) break;
3893		try { GenericConvert( in->Phase, arg, db ); break; }
3894		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 6 to IfcProject to be a `IfcLabel`")); }
3895		} while(0);
3896		do { // convert the 'RepresentationContexts' argument
3897		boost::shared_ptr<const DataType> arg = params[base++];
3898		try { GenericConvert( in->RepresentationContexts, arg, db ); break; }
3899		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 7 to IfcProject to be a `SET [1:?] OF IfcRepresentationContext`")); }
3900		} while(0);
3901		do { // convert the 'UnitsInContext' argument
3902		boost::shared_ptr<const DataType> arg = params[base++];
3903		try { GenericConvert( in->UnitsInContext, arg, db ); break; }
3904		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 8 to IfcProject to be a `IfcUnitAssignment`")); }
3905		} while(0);
3906		return base;
3907		}
3908		// -----------------------------------------------------------------------------------------------------------
3909		template <> size_t GenericFill<IfcCartesianPoint>(const DB& db, const LIST& params, IfcCartesianPoint* in)
3910		{
3911		size_t base = GenericFill(db,params,static_cast<IfcPoint*>(in));
3912		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcCartesianPoint"); } do { // convert the 'Coordinates' argument
3913		boost::shared_ptr<const DataType> arg = params[base++];
3914		try { GenericConvert( in->Coordinates, arg, db ); break; }
3915		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcCartesianPoint to be a `LIST [1:3] OF IfcLengthMeasure`")); }
3916		} while(0);
3917		return base;
3918		}
3919		// -----------------------------------------------------------------------------------------------------------
3920		template <> size_t GenericFill<IfcCurveBoundedPlane>(const DB& db, const LIST& params, IfcCurveBoundedPlane* in)
3921		{
3922		size_t base = GenericFill(db,params,static_cast<IfcBoundedSurface*>(in));
3923		// this data structure is not used yet, so there is no code generated to fill its members
3924		return base;
3925		}
3926		// -----------------------------------------------------------------------------------------------------------
3927		template <> size_t GenericFill<IfcWallType>(const DB& db, const LIST& params, IfcWallType* in)
3928		{
3929		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
3930		// this data structure is not used yet, so there is no code generated to fill its members
3931		return base;
3932		}
3933		// -----------------------------------------------------------------------------------------------------------
3934		template <> size_t GenericFill<IfcFillAreaStyleHatching>(const DB& db, const LIST& params, IfcFillAreaStyleHatching* in)
3935		{
3936		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
3937		// this data structure is not used yet, so there is no code generated to fill its members
3938		return base;
3939		}
3940		// -----------------------------------------------------------------------------------------------------------
3941		template <> size_t GenericFill<IfcEquipmentStandard>(const DB& db, const LIST& params, IfcEquipmentStandard* in)
3942		{
3943		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
3944		// this data structure is not used yet, so there is no code generated to fill its members
3945		return base;
3946		}
3947		// -----------------------------------------------------------------------------------------------------------
3948		template <> size_t GenericFill<IfcDiameterDimension>(const DB& db, const LIST& params, IfcDiameterDimension* in)
3949		{
3950		size_t base = GenericFill(db,params,static_cast<IfcDimensionCurveDirectedCallout*>(in));
3951		// this data structure is not used yet, so there is no code generated to fill its members
3952		return base;
3953		}
3954		// -----------------------------------------------------------------------------------------------------------
3955		template <> size_t GenericFill<IfcStructuralLoadGroup>(const DB& db, const LIST& params, IfcStructuralLoadGroup* in)
3956		{
3957		size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
3958		// this data structure is not used yet, so there is no code generated to fill its members
3959		return base;
3960		}
3961		// -----------------------------------------------------------------------------------------------------------
3962		template <> size_t GenericFill<IfcConstructionMaterialResource>(const DB& db, const LIST& params, IfcConstructionMaterialResource* in)
3963		{
3964		size_t base = GenericFill(db,params,static_cast<IfcConstructionResource*>(in));
3965		// this data structure is not used yet, so there is no code generated to fill its members
3966		return base;
3967		}
3968		// -----------------------------------------------------------------------------------------------------------
3969		template <> size_t GenericFill<IfcRelAggregates>(const DB& db, const LIST& params, IfcRelAggregates* in)
3970		{
3971		size_t base = GenericFill(db,params,static_cast<IfcRelDecomposes*>(in));
3972		if (params.GetSize() < 6) { throw STEP::TypeError("expected 6 arguments to IfcRelAggregates"); } return base;
3973		}
3974		// -----------------------------------------------------------------------------------------------------------
3975		template <> size_t GenericFill<IfcBoilerType>(const DB& db, const LIST& params, IfcBoilerType* in)
3976		{
3977		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
3978		// this data structure is not used yet, so there is no code generated to fill its members
3979		return base;
3980		}
3981		// -----------------------------------------------------------------------------------------------------------
3982		template <> size_t GenericFill<IfcColourSpecification>(const DB& db, const LIST& params, IfcColourSpecification* in)
3983		{
3984		size_t base = 0;
3985		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcColourSpecification"); } do { // convert the 'Name' argument
3986		boost::shared_ptr<const DataType> arg = params[base++];
3987		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcColourSpecification,1>::aux_is_derived[0]=true; break; }
3988		if (dynamic_cast<const UNSET>(&arg)) break;
3989		try { GenericConvert( in->Name, arg, db ); break; }
3990		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcColourSpecification to be a `IfcLabel`")); }
3991		} while(0);
3992		return base;
3993		}
3994		// -----------------------------------------------------------------------------------------------------------
3995		template <> size_t GenericFill<IfcColourRgb>(const DB& db, const LIST& params, IfcColourRgb* in)
3996		{
3997		size_t base = GenericFill(db,params,static_cast<IfcColourSpecification*>(in));
3998		if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcColourRgb"); } do { // convert the 'Red' argument
3999		boost::shared_ptr<const DataType> arg = params[base++];
4000		try { GenericConvert( in->Red, arg, db ); break; }
4001		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcColourRgb to be a `IfcNormalisedRatioMeasure`")); }
4002		} while(0);
4003		do { // convert the 'Green' argument
4004		boost::shared_ptr<const DataType> arg = params[base++];
4005		try { GenericConvert( in->Green, arg, db ); break; }
4006		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcColourRgb to be a `IfcNormalisedRatioMeasure`")); }
4007		} while(0);
4008		do { // convert the 'Blue' argument
4009		boost::shared_ptr<const DataType> arg = params[base++];
4010		try { GenericConvert( in->Blue, arg, db ); break; }
4011		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcColourRgb to be a `IfcNormalisedRatioMeasure`")); }
4012		} while(0);
4013		return base;
4014		}
4015		// -----------------------------------------------------------------------------------------------------------
4016		template <> size_t GenericFill<IfcDoorStyle>(const DB& db, const LIST& params, IfcDoorStyle* in)
4017		{
4018		size_t base = GenericFill(db,params,static_cast<IfcTypeProduct*>(in));
4019		// this data structure is not used yet, so there is no code generated to fill its members
4020		return base;
4021		}
4022		// -----------------------------------------------------------------------------------------------------------
4023		template <> size_t GenericFill<IfcDuctSilencerType>(const DB& db, const LIST& params, IfcDuctSilencerType* in)
4024		{
4025		size_t base = GenericFill(db,params,static_cast<IfcFlowTreatmentDeviceType*>(in));
4026		// this data structure is not used yet, so there is no code generated to fill its members
4027		return base;
4028		}
4029		// -----------------------------------------------------------------------------------------------------------
4030		template <> size_t GenericFill<IfcLightSourceGoniometric>(const DB& db, const LIST& params, IfcLightSourceGoniometric* in)
4031		{
4032		size_t base = GenericFill(db,params,static_cast<IfcLightSource*>(in));
4033		// this data structure is not used yet, so there is no code generated to fill its members
4034		return base;
4035		}
4036		// -----------------------------------------------------------------------------------------------------------
4037		template <> size_t GenericFill<IfcActuatorType>(const DB& db, const LIST& params, IfcActuatorType* in)
4038		{
4039		size_t base = GenericFill(db,params,static_cast<IfcDistributionControlElementType*>(in));
4040		// this data structure is not used yet, so there is no code generated to fill its members
4041		return base;
4042		}
4043		// -----------------------------------------------------------------------------------------------------------
4044		template <> size_t GenericFill<IfcSensorType>(const DB& db, const LIST& params, IfcSensorType* in)
4045		{
4046		size_t base = GenericFill(db,params,static_cast<IfcDistributionControlElementType*>(in));
4047		// this data structure is not used yet, so there is no code generated to fill its members
4048		return base;
4049		}
4050		// -----------------------------------------------------------------------------------------------------------
4051		template <> size_t GenericFill<IfcAirTerminalBoxType>(const DB& db, const LIST& params, IfcAirTerminalBoxType* in)
4052		{
4053		size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
4054		// this data structure is not used yet, so there is no code generated to fill its members
4055		return base;
4056		}
4057		// -----------------------------------------------------------------------------------------------------------
4058		template <> size_t GenericFill<IfcAnnotationSurfaceOccurrence>(const DB& db, const LIST& params, IfcAnnotationSurfaceOccurrence* in)
4059		{
4060		size_t base = GenericFill(db,params,static_cast<IfcAnnotationOccurrence*>(in));
4061		// this data structure is not used yet, so there is no code generated to fill its members
4062		return base;
4063		}
4064		// -----------------------------------------------------------------------------------------------------------
4065		template <> size_t GenericFill<IfcZShapeProfileDef>(const DB& db, const LIST& params, IfcZShapeProfileDef* in)
4066		{
4067		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
4068		// this data structure is not used yet, so there is no code generated to fill its members
4069		return base;
4070		}
4071		// -----------------------------------------------------------------------------------------------------------
4072		template <> size_t GenericFill<IfcRationalBezierCurve>(const DB& db, const LIST& params, IfcRationalBezierCurve* in)
4073		{
4074		size_t base = GenericFill(db,params,static_cast<IfcBezierCurve*>(in));
4075		// this data structure is not used yet, so there is no code generated to fill its members
4076		return base;
4077		}
4078		// -----------------------------------------------------------------------------------------------------------
4079		template <> size_t GenericFill<IfcCartesianTransformationOperator2D>(const DB& db, const LIST& params, IfcCartesianTransformationOperator2D* in)
4080		{
4081		size_t base = GenericFill(db,params,static_cast<IfcCartesianTransformationOperator*>(in));
4082		// this data structure is not used yet, so there is no code generated to fill its members
4083		return base;
4084		}
4085		// -----------------------------------------------------------------------------------------------------------
4086		template <> size_t GenericFill<IfcCartesianTransformationOperator2DnonUniform>(const DB& db, const LIST& params, IfcCartesianTransformationOperator2DnonUniform* in)
4087		{
4088		size_t base = GenericFill(db,params,static_cast<IfcCartesianTransformationOperator2D*>(in));
4089		// this data structure is not used yet, so there is no code generated to fill its members
4090		return base;
4091		}
4092		// -----------------------------------------------------------------------------------------------------------
4093		template <> size_t GenericFill<IfcMove>(const DB& db, const LIST& params, IfcMove* in)
4094		{
4095		size_t base = GenericFill(db,params,static_cast<IfcTask*>(in));
4096		// this data structure is not used yet, so there is no code generated to fill its members
4097		return base;
4098		}
4099		// -----------------------------------------------------------------------------------------------------------
4100		template <> size_t GenericFill<IfcCableCarrierSegmentType>(const DB& db, const LIST& params, IfcCableCarrierSegmentType* in)
4101		{
4102		size_t base = GenericFill(db,params,static_cast<IfcFlowSegmentType*>(in));
4103		// this data structure is not used yet, so there is no code generated to fill its members
4104		return base;
4105		}
4106		// -----------------------------------------------------------------------------------------------------------
4107		template <> size_t GenericFill<IfcElectricalElement>(const DB& db, const LIST& params, IfcElectricalElement* in)
4108		{
4109		size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
4110		// this data structure is not used yet, so there is no code generated to fill its members
4111		return base;
4112		}
4113		// -----------------------------------------------------------------------------------------------------------
4114		template <> size_t GenericFill<IfcChillerType>(const DB& db, const LIST& params, IfcChillerType* in)
4115		{
4116		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
4117		// this data structure is not used yet, so there is no code generated to fill its members
4118		return base;
4119		}
4120		// -----------------------------------------------------------------------------------------------------------
4121		template <> size_t GenericFill<IfcReinforcingBar>(const DB& db, const LIST& params, IfcReinforcingBar* in)
4122		{
4123		size_t base = GenericFill(db,params,static_cast<IfcReinforcingElement*>(in));
4124		// this data structure is not used yet, so there is no code generated to fill its members
4125		return base;
4126		}
4127		// -----------------------------------------------------------------------------------------------------------
4128		template <> size_t GenericFill<IfcCShapeProfileDef>(const DB& db, const LIST& params, IfcCShapeProfileDef* in)
4129		{
4130		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
4131		// this data structure is not used yet, so there is no code generated to fill its members
4132		return base;
4133		}
4134		// -----------------------------------------------------------------------------------------------------------
4135		template <> size_t GenericFill<IfcPermit>(const DB& db, const LIST& params, IfcPermit* in)
4136		{
4137		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
4138		// this data structure is not used yet, so there is no code generated to fill its members
4139		return base;
4140		}
4141		// -----------------------------------------------------------------------------------------------------------
4142		template <> size_t GenericFill<IfcSlabType>(const DB& db, const LIST& params, IfcSlabType* in)
4143		{
4144		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
4145		// this data structure is not used yet, so there is no code generated to fill its members
4146		return base;
4147		}
4148		// -----------------------------------------------------------------------------------------------------------
4149		template <> size_t GenericFill<IfcLampType>(const DB& db, const LIST& params, IfcLampType* in)
4150		{
4151		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
4152		// this data structure is not used yet, so there is no code generated to fill its members
4153		return base;
4154		}
4155		// -----------------------------------------------------------------------------------------------------------
4156		template <> size_t GenericFill<IfcPlanarExtent>(const DB& db, const LIST& params, IfcPlanarExtent* in)
4157		{
4158		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
4159		// this data structure is not used yet, so there is no code generated to fill its members
4160		return base;
4161		}
4162		// -----------------------------------------------------------------------------------------------------------
4163		template <> size_t GenericFill<IfcAlarmType>(const DB& db, const LIST& params, IfcAlarmType* in)
4164		{
4165		size_t base = GenericFill(db,params,static_cast<IfcDistributionControlElementType*>(in));
4166		// this data structure is not used yet, so there is no code generated to fill its members
4167		return base;
4168		}
4169		// -----------------------------------------------------------------------------------------------------------
4170		template <> size_t GenericFill<IfcElectricFlowStorageDeviceType>(const DB& db, const LIST& params, IfcElectricFlowStorageDeviceType* in)
4171		{
4172		size_t base = GenericFill(db,params,static_cast<IfcFlowStorageDeviceType*>(in));
4173		// this data structure is not used yet, so there is no code generated to fill its members
4174		return base;
4175		}
4176		// -----------------------------------------------------------------------------------------------------------
4177		template <> size_t GenericFill<IfcEquipmentElement>(const DB& db, const LIST& params, IfcEquipmentElement* in)
4178		{
4179		size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
4180		// this data structure is not used yet, so there is no code generated to fill its members
4181		return base;
4182		}
4183		// -----------------------------------------------------------------------------------------------------------
4184		template <> size_t GenericFill<IfcLightFixtureType>(const DB& db, const LIST& params, IfcLightFixtureType* in)
4185		{
4186		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
4187		// this data structure is not used yet, so there is no code generated to fill its members
4188		return base;
4189		}
4190		// -----------------------------------------------------------------------------------------------------------
4191		template <> size_t GenericFill<IfcCurtainWall>(const DB& db, const LIST& params, IfcCurtainWall* in)
4192		{
4193		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
4194		// this data structure is not used yet, so there is no code generated to fill its members
4195		return base;
4196		}
4197		// -----------------------------------------------------------------------------------------------------------
4198		template <> size_t GenericFill<IfcSlab>(const DB& db, const LIST& params, IfcSlab* in)
4199		{
4200		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
4201		// this data structure is not used yet, so there is no code generated to fill its members
4202		return base;
4203		}
4204		// -----------------------------------------------------------------------------------------------------------
4205		template <> size_t GenericFill<IfcCurtainWallType>(const DB& db, const LIST& params, IfcCurtainWallType* in)
4206		{
4207		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
4208		// this data structure is not used yet, so there is no code generated to fill its members
4209		return base;
4210		}
4211		// -----------------------------------------------------------------------------------------------------------
4212		template <> size_t GenericFill<IfcOutletType>(const DB& db, const LIST& params, IfcOutletType* in)
4213		{
4214		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
4215		// this data structure is not used yet, so there is no code generated to fill its members
4216		return base;
4217		}
4218		// -----------------------------------------------------------------------------------------------------------
4219		template <> size_t GenericFill<IfcCompressorType>(const DB& db, const LIST& params, IfcCompressorType* in)
4220		{
4221		size_t base = GenericFill(db,params,static_cast<IfcFlowMovingDeviceType*>(in));
4222		// this data structure is not used yet, so there is no code generated to fill its members
4223		return base;
4224		}
4225		// -----------------------------------------------------------------------------------------------------------
4226		template <> size_t GenericFill<IfcCraneRailAShapeProfileDef>(const DB& db, const LIST& params, IfcCraneRailAShapeProfileDef* in)
4227		{
4228		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
4229		// this data structure is not used yet, so there is no code generated to fill its members
4230		return base;
4231		}
4232		// -----------------------------------------------------------------------------------------------------------
4233		template <> size_t GenericFill<IfcFlowSegment>(const DB& db, const LIST& params, IfcFlowSegment* in)
4234		{
4235		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
4236		// this data structure is not used yet, so there is no code generated to fill its members
4237		return base;
4238		}
4239		// -----------------------------------------------------------------------------------------------------------
4240		template <> size_t GenericFill<IfcSectionedSpine>(const DB& db, const LIST& params, IfcSectionedSpine* in)
4241		{
4242		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
4243		// this data structure is not used yet, so there is no code generated to fill its members
4244		return base;
4245		}
4246		// -----------------------------------------------------------------------------------------------------------
4247		template <> size_t GenericFill<IfcElectricTimeControlType>(const DB& db, const LIST& params, IfcElectricTimeControlType* in)
4248		{
4249		size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
4250		// this data structure is not used yet, so there is no code generated to fill its members
4251		return base;
4252		}
4253		// -----------------------------------------------------------------------------------------------------------
4254		template <> size_t GenericFill<IfcFaceSurface>(const DB& db, const LIST& params, IfcFaceSurface* in)
4255		{
4256		size_t base = GenericFill(db,params,static_cast<IfcFace*>(in));
4257		// this data structure is not used yet, so there is no code generated to fill its members
4258		return base;
4259		}
4260		// -----------------------------------------------------------------------------------------------------------
4261		template <> size_t GenericFill<IfcMotorConnectionType>(const DB& db, const LIST& params, IfcMotorConnectionType* in)
4262		{
4263		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
4264		// this data structure is not used yet, so there is no code generated to fill its members
4265		return base;
4266		}
4267		// -----------------------------------------------------------------------------------------------------------
4268		template <> size_t GenericFill<IfcFlowFitting>(const DB& db, const LIST& params, IfcFlowFitting* in)
4269		{
4270		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
4271		// this data structure is not used yet, so there is no code generated to fill its members
4272		return base;
4273		}
4274		// -----------------------------------------------------------------------------------------------------------
4275		template <> size_t GenericFill<IfcPointOnCurve>(const DB& db, const LIST& params, IfcPointOnCurve* in)
4276		{
4277		size_t base = GenericFill(db,params,static_cast<IfcPoint*>(in));
4278		// this data structure is not used yet, so there is no code generated to fill its members
4279		return base;
4280		}
4281		// -----------------------------------------------------------------------------------------------------------
4282		template <> size_t GenericFill<IfcTransportElementType>(const DB& db, const LIST& params, IfcTransportElementType* in)
4283		{
4284		size_t base = GenericFill(db,params,static_cast<IfcElementType*>(in));
4285		// this data structure is not used yet, so there is no code generated to fill its members
4286		return base;
4287		}
4288		// -----------------------------------------------------------------------------------------------------------
4289		template <> size_t GenericFill<IfcCableSegmentType>(const DB& db, const LIST& params, IfcCableSegmentType* in)
4290		{
4291		size_t base = GenericFill(db,params,static_cast<IfcFlowSegmentType*>(in));
4292		// this data structure is not used yet, so there is no code generated to fill its members
4293		return base;
4294		}
4295		// -----------------------------------------------------------------------------------------------------------
4296		template <> size_t GenericFill<IfcAnnotationSurface>(const DB& db, const LIST& params, IfcAnnotationSurface* in)
4297		{
4298		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
4299		// this data structure is not used yet, so there is no code generated to fill its members
4300		return base;
4301		}
4302		// -----------------------------------------------------------------------------------------------------------
4303		template <> size_t GenericFill<IfcCompositeCurveSegment>(const DB& db, const LIST& params, IfcCompositeCurveSegment* in)
4304		{
4305		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
4306		if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcCompositeCurveSegment"); } do { // convert the 'Transition' argument
4307		boost::shared_ptr<const DataType> arg = params[base++];
4308		try { GenericConvert( in->Transition, arg, db ); break; }
4309		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcCompositeCurveSegment to be a `IfcTransitionCode`")); }
4310		} while(0);
4311		do { // convert the 'SameSense' argument
4312		boost::shared_ptr<const DataType> arg = params[base++];
4313		try { GenericConvert( in->SameSense, arg, db ); break; }
4314		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcCompositeCurveSegment to be a `BOOLEAN`")); }
4315		} while(0);
4316		do { // convert the 'ParentCurve' argument
4317		boost::shared_ptr<const DataType> arg = params[base++];
4318		try { GenericConvert( in->ParentCurve, arg, db ); break; }
4319		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcCompositeCurveSegment to be a `IfcCurve`")); }
4320		} while(0);
4321		return base;
4322		}
4323		// -----------------------------------------------------------------------------------------------------------
4324		template <> size_t GenericFill<IfcServiceLife>(const DB& db, const LIST& params, IfcServiceLife* in)
4325		{
4326		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
4327		// this data structure is not used yet, so there is no code generated to fill its members
4328		return base;
4329		}
4330		// -----------------------------------------------------------------------------------------------------------
4331		template <> size_t GenericFill<IfcPlateType>(const DB& db, const LIST& params, IfcPlateType* in)
4332		{
4333		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
4334		// this data structure is not used yet, so there is no code generated to fill its members
4335		return base;
4336		}
4337		// -----------------------------------------------------------------------------------------------------------
4338		template <> size_t GenericFill<IfcVibrationIsolatorType>(const DB& db, const LIST& params, IfcVibrationIsolatorType* in)
4339		{
4340		size_t base = GenericFill(db,params,static_cast<IfcDiscreteAccessoryType*>(in));
4341		// this data structure is not used yet, so there is no code generated to fill its members
4342		return base;
4343		}
4344		// -----------------------------------------------------------------------------------------------------------
4345		template <> size_t GenericFill<IfcTrimmedCurve>(const DB& db, const LIST& params, IfcTrimmedCurve* in)
4346		{
4347		size_t base = GenericFill(db,params,static_cast<IfcBoundedCurve*>(in));
4348		if (params.GetSize() < 5) { throw STEP::TypeError("expected 5 arguments to IfcTrimmedCurve"); } do { // convert the 'BasisCurve' argument
4349		boost::shared_ptr<const DataType> arg = params[base++];
4350		try { GenericConvert( in->BasisCurve, arg, db ); break; }
4351		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcTrimmedCurve to be a `IfcCurve`")); }
4352		} while(0);
4353		do { // convert the 'Trim1' argument
4354		boost::shared_ptr<const DataType> arg = params[base++];
4355		try { GenericConvert( in->Trim1, arg, db ); break; }
4356		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcTrimmedCurve to be a `SET [1:2] OF IfcTrimmingSelect`")); }
4357		} while(0);
4358		do { // convert the 'Trim2' argument
4359		boost::shared_ptr<const DataType> arg = params[base++];
4360		try { GenericConvert( in->Trim2, arg, db ); break; }
4361		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcTrimmedCurve to be a `SET [1:2] OF IfcTrimmingSelect`")); }
4362		} while(0);
4363		do { // convert the 'SenseAgreement' argument
4364		boost::shared_ptr<const DataType> arg = params[base++];
4365		try { GenericConvert( in->SenseAgreement, arg, db ); break; }
4366		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcTrimmedCurve to be a `BOOLEAN`")); }
4367		} while(0);
4368		do { // convert the 'MasterRepresentation' argument
4369		boost::shared_ptr<const DataType> arg = params[base++];
4370		try { GenericConvert( in->MasterRepresentation, arg, db ); break; }
4371		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 4 to IfcTrimmedCurve to be a `IfcTrimmingPreference`")); }
4372		} while(0);
4373		return base;
4374		}
4375		// -----------------------------------------------------------------------------------------------------------
4376		template <> size_t GenericFill<IfcMappedItem>(const DB& db, const LIST& params, IfcMappedItem* in)
4377		{
4378		size_t base = GenericFill(db,params,static_cast<IfcRepresentationItem*>(in));
4379		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcMappedItem"); } do { // convert the 'MappingSource' argument
4380		boost::shared_ptr<const DataType> arg = params[base++];
4381		try { GenericConvert( in->MappingSource, arg, db ); break; }
4382		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcMappedItem to be a `IfcRepresentationMap`")); }
4383		} while(0);
4384		do { // convert the 'MappingTarget' argument
4385		boost::shared_ptr<const DataType> arg = params[base++];
4386		try { GenericConvert( in->MappingTarget, arg, db ); break; }
4387		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcMappedItem to be a `IfcCartesianTransformationOperator`")); }
4388		} while(0);
4389		return base;
4390		}
4391		// -----------------------------------------------------------------------------------------------------------
4392		template <> size_t GenericFill<IfcDirection>(const DB& db, const LIST& params, IfcDirection* in)
4393		{
4394		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
4395		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcDirection"); } do { // convert the 'DirectionRatios' argument
4396		boost::shared_ptr<const DataType> arg = params[base++];
4397		try { GenericConvert( in->DirectionRatios, arg, db ); break; }
4398		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcDirection to be a `LIST [2:3] OF REAL`")); }
4399		} while(0);
4400		return base;
4401		}
4402		// -----------------------------------------------------------------------------------------------------------
4403		template <> size_t GenericFill<IfcBlock>(const DB& db, const LIST& params, IfcBlock* in)
4404		{
4405		size_t base = GenericFill(db,params,static_cast<IfcCsgPrimitive3D*>(in));
4406		// this data structure is not used yet, so there is no code generated to fill its members
4407		return base;
4408		}
4409		// -----------------------------------------------------------------------------------------------------------
4410		template <> size_t GenericFill<IfcProjectOrderRecord>(const DB& db, const LIST& params, IfcProjectOrderRecord* in)
4411		{
4412		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
4413		// this data structure is not used yet, so there is no code generated to fill its members
4414		return base;
4415		}
4416		// -----------------------------------------------------------------------------------------------------------
4417		template <> size_t GenericFill<IfcFlowMeterType>(const DB& db, const LIST& params, IfcFlowMeterType* in)
4418		{
4419		size_t base = GenericFill(db,params,static_cast<IfcFlowControllerType*>(in));
4420		// this data structure is not used yet, so there is no code generated to fill its members
4421		return base;
4422		}
4423		// -----------------------------------------------------------------------------------------------------------
4424		template <> size_t GenericFill<IfcControllerType>(const DB& db, const LIST& params, IfcControllerType* in)
4425		{
4426		size_t base = GenericFill(db,params,static_cast<IfcDistributionControlElementType*>(in));
4427		// this data structure is not used yet, so there is no code generated to fill its members
4428		return base;
4429		}
4430		// -----------------------------------------------------------------------------------------------------------
4431		template <> size_t GenericFill<IfcBeam>(const DB& db, const LIST& params, IfcBeam* in)
4432		{
4433		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
4434		// this data structure is not used yet, so there is no code generated to fill its members
4435		return base;
4436		}
4437		// -----------------------------------------------------------------------------------------------------------
4438		template <> size_t GenericFill<IfcArbitraryOpenProfileDef>(const DB& db, const LIST& params, IfcArbitraryOpenProfileDef* in)
4439		{
4440		size_t base = GenericFill(db,params,static_cast<IfcProfileDef*>(in));
4441		if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcArbitraryOpenProfileDef"); } do { // convert the 'Curve' argument
4442		boost::shared_ptr<const DataType> arg = params[base++];
4443		if (dynamic_cast<const ISDERIVED>(&arg)) { in->ObjectHelper<Assimp::IFC::IfcArbitraryOpenProfileDef,1>::aux_is_derived[0]=true; break; }
4444		try { GenericConvert( in->Curve, arg, db ); break; }
4445		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcArbitraryOpenProfileDef to be a `IfcBoundedCurve`")); }
4446		} while(0);
4447		return base;
4448		}
4449		// -----------------------------------------------------------------------------------------------------------
4450		template <> size_t GenericFill<IfcCenterLineProfileDef>(const DB& db, const LIST& params, IfcCenterLineProfileDef* in)
4451		{
4452		size_t base = GenericFill(db,params,static_cast<IfcArbitraryOpenProfileDef*>(in));
4453		// this data structure is not used yet, so there is no code generated to fill its members
4454		return base;
4455		}
4456		// -----------------------------------------------------------------------------------------------------------
4457		template <> size_t GenericFill<IfcTimeSeriesSchedule>(const DB& db, const LIST& params, IfcTimeSeriesSchedule* in)
4458		{
4459		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
4460		// this data structure is not used yet, so there is no code generated to fill its members
4461		return base;
4462		}
4463		// -----------------------------------------------------------------------------------------------------------
4464		template <> size_t GenericFill<IfcRoundedEdgeFeature>(const DB& db, const LIST& params, IfcRoundedEdgeFeature* in)
4465		{
4466		size_t base = GenericFill(db,params,static_cast<IfcEdgeFeature*>(in));
4467		// this data structure is not used yet, so there is no code generated to fill its members
4468		return base;
4469		}
4470		// -----------------------------------------------------------------------------------------------------------
4471		template <> size_t GenericFill<IfcIShapeProfileDef>(const DB& db, const LIST& params, IfcIShapeProfileDef* in)
4472		{
4473		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
4474		// this data structure is not used yet, so there is no code generated to fill its members
4475		return base;
4476		}
4477		// -----------------------------------------------------------------------------------------------------------
4478		template <> size_t GenericFill<IfcSpaceHeaterType>(const DB& db, const LIST& params, IfcSpaceHeaterType* in)
4479		{
4480		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
4481		// this data structure is not used yet, so there is no code generated to fill its members
4482		return base;
4483		}
4484		// -----------------------------------------------------------------------------------------------------------
4485		template <> size_t GenericFill<IfcFlowStorageDevice>(const DB& db, const LIST& params, IfcFlowStorageDevice* in)
4486		{
4487		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
4488		// this data structure is not used yet, so there is no code generated to fill its members
4489		return base;
4490		}
4491		// -----------------------------------------------------------------------------------------------------------
4492		template <> size_t GenericFill<IfcRevolvedAreaSolid>(const DB& db, const LIST& params, IfcRevolvedAreaSolid* in)
4493		{
4494		size_t base = GenericFill(db,params,static_cast<IfcSweptAreaSolid*>(in));
4495		if (params.GetSize() < 4) { throw STEP::TypeError("expected 4 arguments to IfcRevolvedAreaSolid"); } do { // convert the 'Axis' argument
4496		boost::shared_ptr<const DataType> arg = params[base++];
4497		try { GenericConvert( in->Axis, arg, db ); break; }
4498		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcRevolvedAreaSolid to be a `IfcAxis1Placement`")); }
4499		} while(0);
4500		do { // convert the 'Angle' argument
4501		boost::shared_ptr<const DataType> arg = params[base++];
4502		try { GenericConvert( in->Angle, arg, db ); break; }
4503		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 3 to IfcRevolvedAreaSolid to be a `IfcPlaneAngleMeasure`")); }
4504		} while(0);
4505		return base;
4506		}
4507		// -----------------------------------------------------------------------------------------------------------
4508		template <> size_t GenericFill<IfcDoor>(const DB& db, const LIST& params, IfcDoor* in)
4509		{
4510		size_t base = GenericFill(db,params,static_cast<IfcBuildingElement*>(in));
4511		if (params.GetSize() < 10) { throw STEP::TypeError("expected 10 arguments to IfcDoor"); } do { // convert the 'OverallHeight' argument
4512		boost::shared_ptr<const DataType> arg = params[base++];
4513		if (dynamic_cast<const UNSET>(&arg)) break;
4514		try { GenericConvert( in->OverallHeight, arg, db ); break; }
4515		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 8 to IfcDoor to be a `IfcPositiveLengthMeasure`")); }
4516		} while(0);
4517		do { // convert the 'OverallWidth' argument
4518		boost::shared_ptr<const DataType> arg = params[base++];
4519		if (dynamic_cast<const UNSET>(&arg)) break;
4520		try { GenericConvert( in->OverallWidth, arg, db ); break; }
4521		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 9 to IfcDoor to be a `IfcPositiveLengthMeasure`")); }
4522		} while(0);
4523		return base;
4524		}
4525		// -----------------------------------------------------------------------------------------------------------
4526		template <> size_t GenericFill<IfcEllipse>(const DB& db, const LIST& params, IfcEllipse* in)
4527		{
4528		size_t base = GenericFill(db,params,static_cast<IfcConic*>(in));
4529		if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcEllipse"); } do { // convert the 'SemiAxis1' argument
4530		boost::shared_ptr<const DataType> arg = params[base++];
4531		try { GenericConvert( in->SemiAxis1, arg, db ); break; }
4532		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcEllipse to be a `IfcPositiveLengthMeasure`")); }
4533		} while(0);
4534		do { // convert the 'SemiAxis2' argument
4535		boost::shared_ptr<const DataType> arg = params[base++];
4536		try { GenericConvert( in->SemiAxis2, arg, db ); break; }
4537		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 2 to IfcEllipse to be a `IfcPositiveLengthMeasure`")); }
4538		} while(0);
4539		return base;
4540		}
4541		// -----------------------------------------------------------------------------------------------------------
4542		template <> size_t GenericFill<IfcTubeBundleType>(const DB& db, const LIST& params, IfcTubeBundleType* in)
4543		{
4544		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
4545		// this data structure is not used yet, so there is no code generated to fill its members
4546		return base;
4547		}
4548		// -----------------------------------------------------------------------------------------------------------
4549		template <> size_t GenericFill<IfcAngularDimension>(const DB& db, const LIST& params, IfcAngularDimension* in)
4550		{
4551		size_t base = GenericFill(db,params,static_cast<IfcDimensionCurveDirectedCallout*>(in));
4552		// this data structure is not used yet, so there is no code generated to fill its members
4553		return base;
4554		}
4555		// -----------------------------------------------------------------------------------------------------------
4556		template <> size_t GenericFill<IfcFaceBasedSurfaceModel>(const DB& db, const LIST& params, IfcFaceBasedSurfaceModel* in)
4557		{
4558		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
4559		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcFaceBasedSurfaceModel"); } do { // convert the 'FbsmFaces' argument
4560		boost::shared_ptr<const DataType> arg = params[base++];
4561		try { GenericConvert( in->FbsmFaces, arg, db ); break; }
4562		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcFaceBasedSurfaceModel to be a `SET [1:?] OF IfcConnectedFaceSet`")); }
4563		} while(0);
4564		return base;
4565		}
4566		// -----------------------------------------------------------------------------------------------------------
4567		template <> size_t GenericFill<IfcCraneRailFShapeProfileDef>(const DB& db, const LIST& params, IfcCraneRailFShapeProfileDef* in)
4568		{
4569		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
4570		// this data structure is not used yet, so there is no code generated to fill its members
4571		return base;
4572		}
4573		// -----------------------------------------------------------------------------------------------------------
4574		template <> size_t GenericFill<IfcColumnType>(const DB& db, const LIST& params, IfcColumnType* in)
4575		{
4576		size_t base = GenericFill(db,params,static_cast<IfcBuildingElementType*>(in));
4577		// this data structure is not used yet, so there is no code generated to fill its members
4578		return base;
4579		}
4580		// -----------------------------------------------------------------------------------------------------------
4581		template <> size_t GenericFill<IfcTShapeProfileDef>(const DB& db, const LIST& params, IfcTShapeProfileDef* in)
4582		{
4583		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
4584		// this data structure is not used yet, so there is no code generated to fill its members
4585		return base;
4586		}
4587		// -----------------------------------------------------------------------------------------------------------
4588		template <> size_t GenericFill<IfcEnergyConversionDevice>(const DB& db, const LIST& params, IfcEnergyConversionDevice* in)
4589		{
4590		size_t base = GenericFill(db,params,static_cast<IfcDistributionFlowElement*>(in));
4591		// this data structure is not used yet, so there is no code generated to fill its members
4592		return base;
4593		}
4594		// -----------------------------------------------------------------------------------------------------------
4595		template <> size_t GenericFill<IfcWorkSchedule>(const DB& db, const LIST& params, IfcWorkSchedule* in)
4596		{
4597		size_t base = GenericFill(db,params,static_cast<IfcWorkControl*>(in));
4598		// this data structure is not used yet, so there is no code generated to fill its members
4599		return base;
4600		}
4601		// -----------------------------------------------------------------------------------------------------------
4602		template <> size_t GenericFill<IfcZone>(const DB& db, const LIST& params, IfcZone* in)
4603		{
4604		size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
4605		// this data structure is not used yet, so there is no code generated to fill its members
4606		return base;
4607		}
4608		// -----------------------------------------------------------------------------------------------------------
4609		template <> size_t GenericFill<IfcTransportElement>(const DB& db, const LIST& params, IfcTransportElement* in)
4610		{
4611		size_t base = GenericFill(db,params,static_cast<IfcElement*>(in));
4612		// this data structure is not used yet, so there is no code generated to fill its members
4613		return base;
4614		}
4615		// -----------------------------------------------------------------------------------------------------------
4616		template <> size_t GenericFill<IfcGeometricRepresentationSubContext>(const DB& db, const LIST& params, IfcGeometricRepresentationSubContext* in)
4617		{
4618		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationContext*>(in));
4619		// this data structure is not used yet, so there is no code generated to fill its members
4620		return base;
4621		}
4622		// -----------------------------------------------------------------------------------------------------------
4623		template <> size_t GenericFill<IfcLShapeProfileDef>(const DB& db, const LIST& params, IfcLShapeProfileDef* in)
4624		{
4625		size_t base = GenericFill(db,params,static_cast<IfcParameterizedProfileDef*>(in));
4626		// this data structure is not used yet, so there is no code generated to fill its members
4627		return base;
4628		}
4629		// -----------------------------------------------------------------------------------------------------------
4630		template <> size_t GenericFill<IfcGeometricCurveSet>(const DB& db, const LIST& params, IfcGeometricCurveSet* in)
4631		{
4632		size_t base = GenericFill(db,params,static_cast<IfcGeometricSet*>(in));
4633		// this data structure is not used yet, so there is no code generated to fill its members
4634		return base;
4635		}
4636		// -----------------------------------------------------------------------------------------------------------
4637		template <> size_t GenericFill<IfcActor>(const DB& db, const LIST& params, IfcActor* in)
4638		{
4639		size_t base = GenericFill(db,params,static_cast<IfcObject*>(in));
4640		// this data structure is not used yet, so there is no code generated to fill its members
4641		return base;
4642		}
4643		// -----------------------------------------------------------------------------------------------------------
4644		template <> size_t GenericFill<IfcOccupant>(const DB& db, const LIST& params, IfcOccupant* in)
4645		{
4646		size_t base = GenericFill(db,params,static_cast<IfcActor*>(in));
4647		// this data structure is not used yet, so there is no code generated to fill its members
4648		return base;
4649		}
4650		// -----------------------------------------------------------------------------------------------------------
4651		template <> size_t GenericFill<IfcBooleanClippingResult>(const DB& db, const LIST& params, IfcBooleanClippingResult* in)
4652		{
4653		size_t base = GenericFill(db,params,static_cast<IfcBooleanResult*>(in));
4654		if (params.GetSize() < 3) { throw STEP::TypeError("expected 3 arguments to IfcBooleanClippingResult"); } return base;
4655		}
4656		// -----------------------------------------------------------------------------------------------------------
4657		template <> size_t GenericFill<IfcAnnotationFillArea>(const DB& db, const LIST& params, IfcAnnotationFillArea* in)
4658		{
4659		size_t base = GenericFill(db,params,static_cast<IfcGeometricRepresentationItem*>(in));
4660		// this data structure is not used yet, so there is no code generated to fill its members
4661		return base;
4662		}
4663		// -----------------------------------------------------------------------------------------------------------
4664		template <> size_t GenericFill<IfcLightSourceSpot>(const DB& db, const LIST& params, IfcLightSourceSpot* in)
4665		{
4666		size_t base = GenericFill(db,params,static_cast<IfcLightSourcePositional*>(in));
4667		// this data structure is not used yet, so there is no code generated to fill its members
4668		return base;
4669		}
4670		// -----------------------------------------------------------------------------------------------------------
4671		template <> size_t GenericFill<IfcFireSuppressionTerminalType>(const DB& db, const LIST& params, IfcFireSuppressionTerminalType* in)
4672		{
4673		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
4674		// this data structure is not used yet, so there is no code generated to fill its members
4675		return base;
4676		}
4677		// -----------------------------------------------------------------------------------------------------------
4678		template <> size_t GenericFill<IfcElectricGeneratorType>(const DB& db, const LIST& params, IfcElectricGeneratorType* in)
4679		{
4680		size_t base = GenericFill(db,params,static_cast<IfcEnergyConversionDeviceType*>(in));
4681		// this data structure is not used yet, so there is no code generated to fill its members
4682		return base;
4683		}
4684		// -----------------------------------------------------------------------------------------------------------
4685		template <> size_t GenericFill<IfcInventory>(const DB& db, const LIST& params, IfcInventory* in)
4686		{
4687		size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
4688		// this data structure is not used yet, so there is no code generated to fill its members
4689		return base;
4690		}
4691		// -----------------------------------------------------------------------------------------------------------
4692		template <> size_t GenericFill<IfcPolyline>(const DB& db, const LIST& params, IfcPolyline* in)
4693		{
4694		size_t base = GenericFill(db,params,static_cast<IfcBoundedCurve*>(in));
4695		if (params.GetSize() < 1) { throw STEP::TypeError("expected 1 arguments to IfcPolyline"); } do { // convert the 'Points' argument
4696		boost::shared_ptr<const DataType> arg = params[base++];
4697		try { GenericConvert( in->Points, arg, db ); break; }
4698		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcPolyline to be a `LIST [2:?] OF IfcCartesianPoint`")); }
4699		} while(0);
4700		return base;
4701		}
4702		// -----------------------------------------------------------------------------------------------------------
4703		template <> size_t GenericFill<IfcBoxedHalfSpace>(const DB& db, const LIST& params, IfcBoxedHalfSpace* in)
4704		{
4705		size_t base = GenericFill(db,params,static_cast<IfcHalfSpaceSolid*>(in));
4706		// this data structure is not used yet, so there is no code generated to fill its members
4707		return base;
4708		}
4709		// -----------------------------------------------------------------------------------------------------------
4710		template <> size_t GenericFill<IfcAirTerminalType>(const DB& db, const LIST& params, IfcAirTerminalType* in)
4711		{
4712		size_t base = GenericFill(db,params,static_cast<IfcFlowTerminalType*>(in));
4713		// this data structure is not used yet, so there is no code generated to fill its members
4714		return base;
4715		}
4716		// -----------------------------------------------------------------------------------------------------------
4717		template <> size_t GenericFill<IfcDistributionPort>(const DB& db, const LIST& params, IfcDistributionPort* in)
4718		{
4719		size_t base = GenericFill(db,params,static_cast<IfcPort*>(in));
4720		// this data structure is not used yet, so there is no code generated to fill its members
4721		return base;
4722		}
4723		// -----------------------------------------------------------------------------------------------------------
4724		template <> size_t GenericFill<IfcCostItem>(const DB& db, const LIST& params, IfcCostItem* in)
4725		{
4726		size_t base = GenericFill(db,params,static_cast<IfcControl*>(in));
4727		// this data structure is not used yet, so there is no code generated to fill its members
4728		return base;
4729		}
4730		// -----------------------------------------------------------------------------------------------------------
4731		template <> size_t GenericFill<IfcStructuredDimensionCallout>(const DB& db, const LIST& params, IfcStructuredDimensionCallout* in)
4732		{
4733		size_t base = GenericFill(db,params,static_cast<IfcDraughtingCallout*>(in));
4734		// this data structure is not used yet, so there is no code generated to fill its members
4735		return base;
4736		}
4737		// -----------------------------------------------------------------------------------------------------------
4738		template <> size_t GenericFill<IfcStructuralResultGroup>(const DB& db, const LIST& params, IfcStructuralResultGroup* in)
4739		{
4740		size_t base = GenericFill(db,params,static_cast<IfcGroup*>(in));
4741		// this data structure is not used yet, so there is no code generated to fill its members
4742		return base;
4743		}
4744		// -----------------------------------------------------------------------------------------------------------
4745		template <> size_t GenericFill<IfcOrientedEdge>(const DB& db, const LIST& params, IfcOrientedEdge* in)
4746		{
4747		size_t base = GenericFill(db,params,static_cast<IfcEdge*>(in));
4748		// this data structure is not used yet, so there is no code generated to fill its members
4749		return base;
4750		}
4751		// -----------------------------------------------------------------------------------------------------------
4752		template <> size_t GenericFill<IfcCsgSolid>(const DB& db, const LIST& params, IfcCsgSolid* in)
4753		{
4754		size_t base = GenericFill(db,params,static_cast<IfcSolidModel*>(in));
4755		// this data structure is not used yet, so there is no code generated to fill its members
4756		return base;
4757		}
4758		// -----------------------------------------------------------------------------------------------------------
4759		template <> size_t GenericFill<IfcPlanarBox>(const DB& db, const LIST& params, IfcPlanarBox* in)
4760		{
4761		size_t base = GenericFill(db,params,static_cast<IfcPlanarExtent*>(in));
4762		// this data structure is not used yet, so there is no code generated to fill its members
4763		return base;
4764		}
4765		// -----------------------------------------------------------------------------------------------------------
4766		template <> size_t GenericFill<IfcMaterialDefinitionRepresentation>(const DB& db, const LIST& params, IfcMaterialDefinitionRepresentation* in)
4767		{
4768		size_t base = GenericFill(db,params,static_cast<IfcProductRepresentation*>(in));
4769		// this data structure is not used yet, so there is no code generated to fill its members
4770		return base;
4771		}
4772		// -----------------------------------------------------------------------------------------------------------
4773		template <> size_t GenericFill<IfcAsymmetricIShapeProfileDef>(const DB& db, const LIST& params, IfcAsymmetricIShapeProfileDef* in)
4774		{
4775		size_t base = GenericFill(db,params,static_cast<IfcIShapeProfileDef*>(in));
4776		// this data structure is not used yet, so there is no code generated to fill its members
4777		return base;
4778		}
4779		// -----------------------------------------------------------------------------------------------------------
4780		template <> size_t GenericFill<IfcRepresentationMap>(const DB& db, const LIST& params, IfcRepresentationMap* in)
4781		{
4782		size_t base = 0;
4783		if (params.GetSize() < 2) { throw STEP::TypeError("expected 2 arguments to IfcRepresentationMap"); } do { // convert the 'MappingOrigin' argument
4784		boost::shared_ptr<const DataType> arg = params[base++];
4785		try { GenericConvert( in->MappingOrigin, arg, db ); break; }
4786		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 0 to IfcRepresentationMap to be a `IfcAxis2Placement`")); }
4787		} while(0);
4788		do { // convert the 'MappedRepresentation' argument
4789		boost::shared_ptr<const DataType> arg = params[base++];
4790		try { GenericConvert( in->MappedRepresentation, arg, db ); break; }
4791		catch (const TypeError& t) { throw TypeError(t.what() + std::string(" - expected argument 1 to IfcRepresentationMap to be a `IfcRepresentation`")); }
4792		} while(0);
4793	5023	return base;
4794	5024	}
4795	5025

+3866

-3757

code/IFCReaderGen.h less more

0	0	/*
1		Open Asset Import Library (assimp)
	1	Open Asset Import Library (ASSIMP)
2	2	----------------------------------------------------------------------
3	3
4		Copyright (c) 2006-2012, assimp team
	4	Copyright (c) 2006-2010, ASSIMP Development Team
5	5	All rights reserved.
6	6
7	7	Redistribution and use of this software in source and binary forms,

17	17	following disclaimer in the documentation and/or other
18	18	materials provided with the distribution.
19	19
20		* Neither the name of the assimp team, nor the names of its
	20	* Neither the name of the ASSIMP team, nor the names of its
21	21	contributors may be used to endorse or promote products
22	22	derived from this software without specific prior
23		written permission of the assimp team.
	23	written permission of the ASSIMP Development Team.
24	24
25	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
26	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT

60	60	// ******************************************************************************
61	61
62	62
	63	// C++ wrapper type for IfcStairTypeEnum
	64	typedef ENUMERATION IfcStairTypeEnum;
	65	// C++ wrapper type for IfcSpaceTypeEnum
	66	typedef ENUMERATION IfcSpaceTypeEnum;
	67	// C++ wrapper type for IfcWallTypeEnum
	68	typedef ENUMERATION IfcWallTypeEnum;
	69	// C++ wrapper type for IfcMonthInYearNumber
	70	typedef INTEGER IfcMonthInYearNumber;
	71	// C++ wrapper type for IfcHeatFluxDensityMeasure
	72	typedef REAL IfcHeatFluxDensityMeasure;
	73	// C++ wrapper type for IfcKinematicViscosityMeasure
	74	typedef REAL IfcKinematicViscosityMeasure;
	75	// C++ wrapper type for IfcSequenceEnum
	76	typedef ENUMERATION IfcSequenceEnum;
	77	// C++ wrapper type for IfcAirToAirHeatRecoveryTypeEnum
	78	typedef ENUMERATION IfcAirToAirHeatRecoveryTypeEnum;
	79	// C++ wrapper type for IfcActorSelect
	80	typedef SELECT IfcActorSelect;
	81	// C++ wrapper type for IfcTransformerTypeEnum
	82	typedef ENUMERATION IfcTransformerTypeEnum;
	83	// C++ wrapper type for IfcUnitaryEquipmentTypeEnum
	84	typedef ENUMERATION IfcUnitaryEquipmentTypeEnum;
	85	// C++ wrapper type for IfcElectricFlowStorageDeviceTypeEnum
	86	typedef ENUMERATION IfcElectricFlowStorageDeviceTypeEnum;
	87	// C++ wrapper type for IfcEnergySequenceEnum
	88	typedef ENUMERATION IfcEnergySequenceEnum;
	89	// C++ wrapper type for IfcWorkControlTypeEnum
	90	typedef ENUMERATION IfcWorkControlTypeEnum;
	91	// C++ wrapper type for IfcCurvatureMeasure
	92	typedef REAL IfcCurvatureMeasure;
	93	// C++ wrapper type for IfcParameterValue
	94	typedef REAL IfcParameterValue;
	95	// C++ wrapper type for IfcAppliedValueSelect
	96	typedef SELECT IfcAppliedValueSelect;
	97	// C++ wrapper type for IfcWarpingConstantMeasure
	98	typedef REAL IfcWarpingConstantMeasure;
	99	// C++ wrapper type for IfcArithmeticOperatorEnum
	100	typedef ENUMERATION IfcArithmeticOperatorEnum;
	101	// C++ wrapper type for IfcLinearForceMeasure
	102	typedef REAL IfcLinearForceMeasure;
	103	// C++ wrapper type for IfcWindowPanelPositionEnum
	104	typedef ENUMERATION IfcWindowPanelPositionEnum;
	105	// C++ wrapper type for IfcFlowMeterTypeEnum
	106	typedef ENUMERATION IfcFlowMeterTypeEnum;
	107	// C++ wrapper type for IfcRampFlightTypeEnum
	108	typedef ENUMERATION IfcRampFlightTypeEnum;
	109	// C++ wrapper type for IfcSpecularHighlightSelect
	110	typedef SELECT IfcSpecularHighlightSelect;
	111	// C++ wrapper type for IfcActionTypeEnum
	112	typedef ENUMERATION IfcActionTypeEnum;
	113	// C++ wrapper type for IfcGeometricProjectionEnum
	114	typedef ENUMERATION IfcGeometricProjectionEnum;
	115	// C++ wrapper type for IfcTimeSeriesDataTypeEnum
	116	typedef ENUMERATION IfcTimeSeriesDataTypeEnum;
	117	// C++ wrapper type for IfcMagneticFluxMeasure
	118	typedef REAL IfcMagneticFluxMeasure;
	119	// C++ wrapper type for IfcObjectTypeEnum
	120	typedef ENUMERATION IfcObjectTypeEnum;
	121	// C++ wrapper type for IfcDataOriginEnum
	122	typedef ENUMERATION IfcDataOriginEnum;
	123	// C++ wrapper type for IfcMassDensityMeasure
	124	typedef REAL IfcMassDensityMeasure;
	125	// C++ wrapper type for IfcLightFixtureTypeEnum
	126	typedef ENUMERATION IfcLightFixtureTypeEnum;
	127	// C++ wrapper type for IfcServiceLifeTypeEnum
	128	typedef ENUMERATION IfcServiceLifeTypeEnum;
	129	// C++ wrapper type for IfcElectricVoltageMeasure
	130	typedef REAL IfcElectricVoltageMeasure;
	131	// C++ wrapper type for IfcHeatingValueMeasure
	132	typedef REAL IfcHeatingValueMeasure;
	133	// C++ wrapper type for IfcPresentableText
	134	typedef STRING IfcPresentableText;
	135	// C++ wrapper type for IfcAheadOrBehind
	136	typedef ENUMERATION IfcAheadOrBehind;
	137	// C++ wrapper type for IfcSimpleValue
	138	typedef SELECT IfcSimpleValue;
	139	// C++ wrapper type for IfcSensorTypeEnum
	140	typedef ENUMERATION IfcSensorTypeEnum;
	141	// C++ wrapper type for IfcDerivedUnitEnum
	142	typedef ENUMERATION IfcDerivedUnitEnum;
	143	// C++ wrapper type for IfcSizeSelect
	144	typedef SELECT IfcSizeSelect;
	145	// C++ wrapper type for IfcTransportElementTypeEnum
	146	typedef ENUMERATION IfcTransportElementTypeEnum;
	147	// C++ wrapper type for IfcInventoryTypeEnum
	148	typedef ENUMERATION IfcInventoryTypeEnum;
	149	// C++ wrapper type for IfcTextDecoration
	150	typedef STRING IfcTextDecoration;
	151	// C++ wrapper type for IfcDirectionSenseEnum
	152	typedef ENUMERATION IfcDirectionSenseEnum;
	153	// C++ wrapper type for IfcDuctFittingTypeEnum
	154	typedef ENUMERATION IfcDuctFittingTypeEnum;
	155	// C++ wrapper type for IfcDocumentStatusEnum
	156	typedef ENUMERATION IfcDocumentStatusEnum;
	157	// C++ wrapper type for IfcSlabTypeEnum
	158	typedef ENUMERATION IfcSlabTypeEnum;
	159	// C++ wrapper type for IfcDoorStyleConstructionEnum
	160	typedef ENUMERATION IfcDoorStyleConstructionEnum;
	161	// C++ wrapper type for IfcVolumeMeasure
	162	typedef REAL IfcVolumeMeasure;
	163	// C++ wrapper type for IfcInductanceMeasure
	164	typedef REAL IfcInductanceMeasure;
	165	// C++ wrapper type for IfcCurtainWallTypeEnum
	166	typedef ENUMERATION IfcCurtainWallTypeEnum;
	167	// C++ wrapper type for IfcSIUnitName
	168	typedef ENUMERATION IfcSIUnitName;
	169	// C++ wrapper type for IfcSpecularExponent
	170	typedef REAL IfcSpecularExponent;
	171	// C++ wrapper type for IfcSoundPressureMeasure
	172	typedef REAL IfcSoundPressureMeasure;
	173	// C++ wrapper type for IfcAnalysisTheoryTypeEnum
	174	typedef ENUMERATION IfcAnalysisTheoryTypeEnum;
	175	// C++ wrapper type for IfcGasTerminalTypeEnum
	176	typedef ENUMERATION IfcGasTerminalTypeEnum;
	177	// C++ wrapper type for IfcYearNumber
	178	typedef INTEGER IfcYearNumber;
	179	// C++ wrapper type for IfcModulusOfElasticityMeasure
	180	typedef REAL IfcModulusOfElasticityMeasure;
	181	// C++ wrapper type for IfcChangeActionEnum
	182	typedef ENUMERATION IfcChangeActionEnum;
	183	// C++ wrapper type for IfcDamperTypeEnum
	184	typedef ENUMERATION IfcDamperTypeEnum;
	185	// C++ wrapper type for IfcEvaporatorTypeEnum
	186	typedef ENUMERATION IfcEvaporatorTypeEnum;
	187	// C++ wrapper type for IfcIonConcentrationMeasure
	188	typedef REAL IfcIonConcentrationMeasure;
	189	// C++ wrapper type for IfcDuctSegmentTypeEnum
	190	typedef ENUMERATION IfcDuctSegmentTypeEnum;
	191	// C++ wrapper type for IfcProtectiveDeviceTypeEnum
	192	typedef ENUMERATION IfcProtectiveDeviceTypeEnum;
	193	// C++ wrapper type for IfcAbsorbedDoseMeasure
	194	typedef REAL IfcAbsorbedDoseMeasure;
	195	// C++ wrapper type for IfcMassPerLengthMeasure
	196	typedef REAL IfcMassPerLengthMeasure;
	197	// C++ wrapper type for IfcTextFontName
	198	typedef STRING IfcTextFontName;
	199	// C++ wrapper type for IfcOrientationSelect
	200	typedef SELECT IfcOrientationSelect;
	201	// C++ wrapper type for IfcIlluminanceMeasure
	202	typedef REAL IfcIlluminanceMeasure;
	203	// C++ wrapper type for IfcFireSuppressionTerminalTypeEnum
	204	typedef ENUMERATION IfcFireSuppressionTerminalTypeEnum;
	205	// C++ wrapper type for IfcFontStyle
	206	typedef STRING IfcFontStyle;
	207	// C++ wrapper type for IfcMomentOfInertiaMeasure
	208	typedef REAL IfcMomentOfInertiaMeasure;
	209	// C++ wrapper type for IfcModulusOfSubgradeReactionMeasure
	210	typedef REAL IfcModulusOfSubgradeReactionMeasure;
	211	// C++ wrapper type for IfcHumidifierTypeEnum
	212	typedef ENUMERATION IfcHumidifierTypeEnum;
	213	// C++ wrapper type for IfcPresentationStyleSelect
	214	typedef SELECT IfcPresentationStyleSelect;
	215	// C++ wrapper type for IfcThermalTransmittanceMeasure
	216	typedef REAL IfcThermalTransmittanceMeasure;
	217	// C++ wrapper type for IfcRibPlateDirectionEnum
	218	typedef ENUMERATION IfcRibPlateDirectionEnum;
	219	// C++ wrapper type for IfcClassificationNotationSelect
	220	typedef SELECT IfcClassificationNotationSelect;
	221	// C++ wrapper type for IfcMinuteInHour
	222	typedef INTEGER IfcMinuteInHour;
	223	// C++ wrapper type for IfcInternalOrExternalEnum
	224	typedef ENUMERATION IfcInternalOrExternalEnum;
	225	// C++ wrapper type for IfcRotationalFrequencyMeasure
	226	typedef REAL IfcRotationalFrequencyMeasure;
	227	// C++ wrapper type for IfcSanitaryTerminalTypeEnum
	228	typedef ENUMERATION IfcSanitaryTerminalTypeEnum;
	229	// C++ wrapper type for IfcSymbolStyleSelect
	230	typedef SELECT IfcSymbolStyleSelect;
	231	// C++ wrapper type for IfcElementCompositionEnum
	232	typedef ENUMERATION IfcElementCompositionEnum;
	233	// C++ wrapper type for IfcTextPath
	234	typedef ENUMERATION IfcTextPath;
	235	// C++ wrapper type for IfcPowerMeasure
	236	typedef REAL IfcPowerMeasure;
	237	// C++ wrapper type for IfcSurfaceStyleElementSelect
	238	typedef SELECT IfcSurfaceStyleElementSelect;
	239	// C++ wrapper type for IfcResourceConsumptionEnum
	240	typedef ENUMERATION IfcResourceConsumptionEnum;
	241	// C++ wrapper type for IfcElectricCapacitanceMeasure
	242	typedef REAL IfcElectricCapacitanceMeasure;
	243	// C++ wrapper type for IfcLayerSetDirectionEnum
	244	typedef ENUMERATION IfcLayerSetDirectionEnum;
	245	// C++ wrapper type for IfcRailingTypeEnum
	246	typedef ENUMERATION IfcRailingTypeEnum;
	247	// C++ wrapper type for IfcObjectiveEnum
	248	typedef ENUMERATION IfcObjectiveEnum;
	249	// C++ wrapper type for IfcDocumentSelect
	250	typedef SELECT IfcDocumentSelect;
	251	// C++ wrapper type for IfcModulusOfLinearSubgradeReactionMeasure
	252	typedef REAL IfcModulusOfLinearSubgradeReactionMeasure;
	253	// C++ wrapper type for IfcThermalAdmittanceMeasure
	254	typedef REAL IfcThermalAdmittanceMeasure;
	255	// C++ wrapper type for IfcTransitionCode
	256	typedef ENUMERATION IfcTransitionCode;
	257	// C++ wrapper type for IfcConnectionTypeEnum
	258	typedef ENUMERATION IfcConnectionTypeEnum;
	259	// C++ wrapper type for IfcMonetaryMeasure
	260	typedef REAL IfcMonetaryMeasure;
	261	// C++ wrapper type for IfcStackTerminalTypeEnum
	262	typedef ENUMERATION IfcStackTerminalTypeEnum;
	263	// C++ wrapper type for IfcColour
	264	typedef SELECT IfcColour;
	265	// C++ wrapper type for IfcText
	266	typedef STRING IfcText;
	267	// C++ wrapper type for IfcContextDependentMeasure
	268	typedef REAL IfcContextDependentMeasure;
	269	// C++ wrapper type for IfcThermalConductivityMeasure
	270	typedef REAL IfcThermalConductivityMeasure;
	271	// C++ wrapper type for IfcProjectedOrTrueLengthEnum
	272	typedef ENUMERATION IfcProjectedOrTrueLengthEnum;
	273	// C++ wrapper type for IfcPressureMeasure
	274	typedef REAL IfcPressureMeasure;
	275	// C++ wrapper type for IfcMoistureDiffusivityMeasure
	276	typedef REAL IfcMoistureDiffusivityMeasure;
	277	// C++ wrapper type for IfcBooleanOperator
	278	typedef ENUMERATION IfcBooleanOperator;
	279	// C++ wrapper type for IfcPropertySourceEnum
	280	typedef ENUMERATION IfcPropertySourceEnum;
	281	// C++ wrapper type for IfcTimeStamp
	282	typedef INTEGER IfcTimeStamp;
	283	// C++ wrapper type for IfcMaterialSelect
	284	typedef SELECT IfcMaterialSelect;
	285	// C++ wrapper type for IfcGloballyUniqueId
	286	typedef STRING IfcGloballyUniqueId;
	287	// C++ wrapper type for IfcReflectanceMethodEnum
	288	typedef ENUMERATION IfcReflectanceMethodEnum;
	289	// C++ wrapper type for IfcVaporPermeabilityMeasure
	290	typedef REAL IfcVaporPermeabilityMeasure;
	291	// C++ wrapper type for IfcTimeSeriesScheduleTypeEnum
	292	typedef ENUMERATION IfcTimeSeriesScheduleTypeEnum;
	293	// C++ wrapper type for IfcLinearMomentMeasure
	294	typedef REAL IfcLinearMomentMeasure;
	295	// C++ wrapper type for IfcGeometricSetSelect
	296	typedef SELECT IfcGeometricSetSelect;
	297	// C++ wrapper type for IfcSectionModulusMeasure
	298	typedef REAL IfcSectionModulusMeasure;
	299	// C++ wrapper type for IfcBSplineCurveForm
	300	typedef ENUMERATION IfcBSplineCurveForm;
	301	// C++ wrapper type for IfcDimensionExtentUsage
	302	typedef ENUMERATION IfcDimensionExtentUsage;
	303	// C++ wrapper type for IfcThermalExpansionCoefficientMeasure
	304	typedef REAL IfcThermalExpansionCoefficientMeasure;
	305	// C++ wrapper type for IfcHourInDay
	306	typedef INTEGER IfcHourInDay;
	307	// C++ wrapper type for IfcLinearVelocityMeasure
	308	typedef REAL IfcLinearVelocityMeasure;
	309	// C++ wrapper type for IfcTorqueMeasure
	310	typedef REAL IfcTorqueMeasure;
	311	// C++ wrapper type for IfcTemperatureGradientMeasure
	312	typedef REAL IfcTemperatureGradientMeasure;
	313	// C++ wrapper type for IfcFillStyleSelect
	314	typedef SELECT IfcFillStyleSelect;
	315	// C++ wrapper type for IfcElectricChargeMeasure
	316	typedef REAL IfcElectricChargeMeasure;
	317	// C++ wrapper type for IfcHeatExchangerTypeEnum
	318	typedef ENUMERATION IfcHeatExchangerTypeEnum;
	319	// C++ wrapper type for IfcElectricCurrentEnum
	320	typedef ENUMERATION IfcElectricCurrentEnum;
	321	// C++ wrapper type for IfcDaylightSavingHour
	322	typedef INTEGER IfcDaylightSavingHour;
	323	// C++ wrapper type for IfcShell
	324	typedef SELECT IfcShell;
	325	// C++ wrapper type for IfcDoseEquivalentMeasure
	326	typedef REAL IfcDoseEquivalentMeasure;
	327	// C++ wrapper type for IfcProjectOrderTypeEnum
	328	typedef ENUMERATION IfcProjectOrderTypeEnum;
	329	// C++ wrapper type for IfcDerivedMeasureValue
	330	typedef SELECT IfcDerivedMeasureValue;
	331	// C++ wrapper type for IfcLightDistributionCurveEnum
	332	typedef ENUMERATION IfcLightDistributionCurveEnum;
	333	// C++ wrapper type for IfcWarpingMomentMeasure
	334	typedef REAL IfcWarpingMomentMeasure;
	335	// C++ wrapper type for IfcMemberTypeEnum
	336	typedef ENUMERATION IfcMemberTypeEnum;
63	337	// C++ wrapper type for IfcSoundPowerMeasure
64	338	typedef REAL IfcSoundPowerMeasure;
	339	// C++ wrapper type for IfcTextAlignment
	340	typedef STRING IfcTextAlignment;
	341	// C++ wrapper type for IfcCurveOrEdgeCurve
	342	typedef SELECT IfcCurveOrEdgeCurve;
	343	// C++ wrapper type for IfcMassFlowRateMeasure
	344	typedef REAL IfcMassFlowRateMeasure;
	345	// C++ wrapper type for IfcIsothermalMoistureCapacityMeasure
	346	typedef REAL IfcIsothermalMoistureCapacityMeasure;
	347	// C++ wrapper type for IfcCsgSelect
	348	typedef SELECT IfcCsgSelect;
	349	// C++ wrapper type for IfcCoolingTowerTypeEnum
	350	typedef ENUMERATION IfcCoolingTowerTypeEnum;
	351	// C++ wrapper type for IfcMassMeasure
	352	typedef REAL IfcMassMeasure;
	353	// C++ wrapper type for IfcPileConstructionEnum
	354	typedef ENUMERATION IfcPileConstructionEnum;
65	355	// C++ wrapper type for IfcDoorStyleOperationEnum
66	356	typedef ENUMERATION IfcDoorStyleOperationEnum;
67		// C++ wrapper type for IfcRotationalFrequencyMeasure
68		typedef REAL IfcRotationalFrequencyMeasure;
69		// C++ wrapper type for IfcCharacterStyleSelect
70		typedef SELECT IfcCharacterStyleSelect;
	357	// C++ wrapper type for IfcFlowDirectionEnum
	358	typedef ENUMERATION IfcFlowDirectionEnum;
	359	// C++ wrapper type for IfcThermalLoadSourceEnum
	360	typedef ENUMERATION IfcThermalLoadSourceEnum;
	361	// C++ wrapper type for IfcLengthMeasure
	362	typedef REAL IfcLengthMeasure;
	363	// C++ wrapper type for IfcConstraintEnum
	364	typedef ENUMERATION IfcConstraintEnum;
	365	// C++ wrapper type for IfcAxis2Placement
	366	typedef SELECT IfcAxis2Placement;
	367	// C++ wrapper type for IfcLoadGroupTypeEnum
	368	typedef ENUMERATION IfcLoadGroupTypeEnum;
	369	// C++ wrapper type for IfcValue
	370	typedef SELECT IfcValue;
	371	// C++ wrapper type for IfcReinforcingBarSurfaceEnum
	372	typedef ENUMERATION IfcReinforcingBarSurfaceEnum;
	373	// C++ wrapper type for IfcProjectOrderRecordTypeEnum
	374	typedef ENUMERATION IfcProjectOrderRecordTypeEnum;
	375	// C++ wrapper type for IfcDateTimeSelect
	376	typedef SELECT IfcDateTimeSelect;
	377	// C++ wrapper type for IfcStructuralSurfaceTypeEnum
	378	typedef ENUMERATION IfcStructuralSurfaceTypeEnum;
	379	// C++ wrapper type for IfcPermeableCoveringOperationEnum
	380	typedef ENUMERATION IfcPermeableCoveringOperationEnum;
	381	// C++ wrapper type for IfcFontWeight
	382	typedef STRING IfcFontWeight;
	383	// C++ wrapper type for IfcPHMeasure
	384	typedef REAL IfcPHMeasure;
	385	// C++ wrapper type for IfcDescriptiveMeasure
	386	typedef STRING IfcDescriptiveMeasure;
	387	// C++ wrapper type for IfcCurveStyleFontSelect
	388	typedef SELECT IfcCurveStyleFontSelect;
	389	// C++ wrapper type for IfcUnit
	390	typedef SELECT IfcUnit;
	391	// C++ wrapper type for IfcHatchLineDistanceSelect
	392	typedef SELECT IfcHatchLineDistanceSelect;
	393	// C++ wrapper type for IfcTextStyleSelect
	394	typedef SELECT IfcTextStyleSelect;
	395	// C++ wrapper type for IfcMetricValueSelect
	396	typedef SELECT IfcMetricValueSelect;
	397	// C++ wrapper type for IfcVectorOrDirection
	398	typedef SELECT IfcVectorOrDirection;
	399	// C++ wrapper type for IfcAssemblyPlaceEnum
	400	typedef ENUMERATION IfcAssemblyPlaceEnum;
	401	// C++ wrapper type for IfcAirTerminalTypeEnum
	402	typedef ENUMERATION IfcAirTerminalTypeEnum;
	403	// C++ wrapper type for IfcCoveringTypeEnum
	404	typedef ENUMERATION IfcCoveringTypeEnum;
	405	// C++ wrapper type for IfcPlanarForceMeasure
	406	typedef REAL IfcPlanarForceMeasure;
	407	// C++ wrapper type for IfcValveTypeEnum
	408	typedef ENUMERATION IfcValveTypeEnum;
	409	// C++ wrapper type for IfcAlarmTypeEnum
	410	typedef ENUMERATION IfcAlarmTypeEnum;
	411	// C++ wrapper type for IfcDynamicViscosityMeasure
	412	typedef REAL IfcDynamicViscosityMeasure;
	413	// C++ wrapper type for IfcCurrencyEnum
	414	typedef ENUMERATION IfcCurrencyEnum;
	415	// C++ wrapper type for IfcModulusOfRotationalSubgradeReactionMeasure
	416	typedef REAL IfcModulusOfRotationalSubgradeReactionMeasure;
	417	// C++ wrapper type for IfcCableCarrierFittingTypeEnum
	418	typedef ENUMERATION IfcCableCarrierFittingTypeEnum;
	419	// C++ wrapper type for IfcBoolean
	420	typedef BOOLEAN IfcBoolean;
	421	// C++ wrapper type for IfcActionSourceTypeEnum
	422	typedef ENUMERATION IfcActionSourceTypeEnum;
	423	// C++ wrapper type for IfcStructuralActivityAssignmentSelect
	424	typedef SELECT IfcStructuralActivityAssignmentSelect;
	425	// C++ wrapper type for IfcDistributionChamberElementTypeEnum
	426	typedef ENUMERATION IfcDistributionChamberElementTypeEnum;
	427	// C++ wrapper type for IfcEvaporativeCoolerTypeEnum
	428	typedef ENUMERATION IfcEvaporativeCoolerTypeEnum;
	429	// C++ wrapper type for IfcMagneticFluxDensityMeasure
	430	typedef REAL IfcMagneticFluxDensityMeasure;
	431	// C++ wrapper type for IfcLightDistributionDataSourceSelect
	432	typedef SELECT IfcLightDistributionDataSourceSelect;
	433	// C++ wrapper type for IfcTubeBundleTypeEnum
	434	typedef ENUMERATION IfcTubeBundleTypeEnum;
	435	// C++ wrapper type for IfcAccelerationMeasure
	436	typedef REAL IfcAccelerationMeasure;
	437	// C++ wrapper type for IfcBoilerTypeEnum
	438	typedef ENUMERATION IfcBoilerTypeEnum;
	439	// C++ wrapper type for IfcRampTypeEnum
	440	typedef ENUMERATION IfcRampTypeEnum;
	441	// C++ wrapper type for IfcLuminousIntensityDistributionMeasure
	442	typedef REAL IfcLuminousIntensityDistributionMeasure;
	443	// C++ wrapper type for IfcTrimmingPreference
	444	typedef ENUMERATION IfcTrimmingPreference;
	445	// C++ wrapper type for IfcSpecificHeatCapacityMeasure
	446	typedef REAL IfcSpecificHeatCapacityMeasure;
	447	// C++ wrapper type for IfcAmountOfSubstanceMeasure
	448	typedef REAL IfcAmountOfSubstanceMeasure;
	449	// C++ wrapper type for IfcRoleEnum
	450	typedef ENUMERATION IfcRoleEnum;
	451	// C++ wrapper type for IfcDocumentConfidentialityEnum
	452	typedef ENUMERATION IfcDocumentConfidentialityEnum;
	453	// C++ wrapper type for IfcFrequencyMeasure
	454	typedef REAL IfcFrequencyMeasure;
	455	// C++ wrapper type for IfcSectionTypeEnum
	456	typedef ENUMERATION IfcSectionTypeEnum;
	457	// C++ wrapper type for IfcElementAssemblyTypeEnum
	458	typedef ENUMERATION IfcElementAssemblyTypeEnum;
	459	// C++ wrapper type for IfcFootingTypeEnum
	460	typedef ENUMERATION IfcFootingTypeEnum;
	461	// C++ wrapper type for IfcLayeredItem
	462	typedef SELECT IfcLayeredItem;
	463	// C++ wrapper type for IfcCableSegmentTypeEnum
	464	typedef ENUMERATION IfcCableSegmentTypeEnum;
	465	// C++ wrapper type for IfcDefinedSymbolSelect
	466	typedef SELECT IfcDefinedSymbolSelect;
	467	// C++ wrapper type for IfcBuildingElementProxyTypeEnum
	468	typedef ENUMERATION IfcBuildingElementProxyTypeEnum;
	469	// C++ wrapper type for IfcElectricGeneratorTypeEnum
	470	typedef ENUMERATION IfcElectricGeneratorTypeEnum;
	471	// C++ wrapper type for IfcRotationalStiffnessMeasure
	472	typedef REAL IfcRotationalStiffnessMeasure;
	473	// C++ wrapper type for IfcSpaceHeaterTypeEnum
	474	typedef ENUMERATION IfcSpaceHeaterTypeEnum;
	475	// C++ wrapper type for IfcAreaMeasure
	476	typedef REAL IfcAreaMeasure;
	477	// C++ wrapper type for IfcLabel
	478	typedef STRING IfcLabel;
	479	// C++ wrapper type for IfcCostScheduleTypeEnum
	480	typedef ENUMERATION IfcCostScheduleTypeEnum;
	481	// C++ wrapper type for IfcSwitchingDeviceTypeEnum
	482	typedef ENUMERATION IfcSwitchingDeviceTypeEnum;
71	483	// C++ wrapper type for IfcElectricTimeControlTypeEnum
72	484	typedef ENUMERATION IfcElectricTimeControlTypeEnum;
73		// C++ wrapper type for IfcAirTerminalTypeEnum
74		typedef ENUMERATION IfcAirTerminalTypeEnum;
75		// C++ wrapper type for IfcProjectOrderTypeEnum
76		typedef ENUMERATION IfcProjectOrderTypeEnum;
77		// C++ wrapper type for IfcSequenceEnum
78		typedef ENUMERATION IfcSequenceEnum;
79		// C++ wrapper type for IfcSpecificHeatCapacityMeasure
80		typedef REAL IfcSpecificHeatCapacityMeasure;
81		// C++ wrapper type for IfcHeatingValueMeasure
82		typedef REAL IfcHeatingValueMeasure;
83		// C++ wrapper type for IfcRibPlateDirectionEnum
84		typedef ENUMERATION IfcRibPlateDirectionEnum;
85		// C++ wrapper type for IfcSensorTypeEnum
86		typedef ENUMERATION IfcSensorTypeEnum;
	485	// C++ wrapper type for IfcFilterTypeEnum
	486	typedef ENUMERATION IfcFilterTypeEnum;
	487	// C++ wrapper type for IfcPositiveLengthMeasure
	488	typedef REAL IfcPositiveLengthMeasure;
	489	// C++ wrapper type for IfcNullStyle
	490	typedef ENUMERATION IfcNullStyle;
	491	// C++ wrapper type for IfcConditionCriterionSelect
	492	typedef SELECT IfcConditionCriterionSelect;
	493	// C++ wrapper type for IfcShearModulusMeasure
	494	typedef REAL IfcShearModulusMeasure;
	495	// C++ wrapper type for IfcNormalisedRatioMeasure
	496	typedef REAL IfcNormalisedRatioMeasure;
	497	// C++ wrapper type for IfcDoorPanelOperationEnum
	498	typedef ENUMERATION IfcDoorPanelOperationEnum;
	499	// C++ wrapper type for IfcPointOrVertexPoint
	500	typedef SELECT IfcPointOrVertexPoint;
	501	// C++ wrapper type for IfcRoofTypeEnum
	502	typedef ENUMERATION IfcRoofTypeEnum;
	503	// C++ wrapper type for IfcCountMeasure
	504	typedef NUMBER IfcCountMeasure;
	505	// C++ wrapper type for IfcElectricConductanceMeasure
	506	typedef REAL IfcElectricConductanceMeasure;
	507	// C++ wrapper type for IfcProcedureTypeEnum
	508	typedef ENUMERATION IfcProcedureTypeEnum;
	509	// C++ wrapper type for IfcFlowInstrumentTypeEnum
	510	typedef ENUMERATION IfcFlowInstrumentTypeEnum;
	511	// C++ wrapper type for IfcElectricMotorTypeEnum
	512	typedef ENUMERATION IfcElectricMotorTypeEnum;
	513	// C++ wrapper type for IfcSurfaceSide
	514	typedef ENUMERATION IfcSurfaceSide;
	515	// C++ wrapper type for IfcStructuralCurveTypeEnum
	516	typedef ENUMERATION IfcStructuralCurveTypeEnum;
	517	// C++ wrapper type for IfcCondenserTypeEnum
	518	typedef ENUMERATION IfcCondenserTypeEnum;
	519	// C++ wrapper type for IfcLinearStiffnessMeasure
	520	typedef REAL IfcLinearStiffnessMeasure;
	521	// C++ wrapper type for IfcUnitEnum
	522	typedef ENUMERATION IfcUnitEnum;
	523	// C++ wrapper type for IfcOccupantTypeEnum
	524	typedef ENUMERATION IfcOccupantTypeEnum;
	525	// C++ wrapper type for IfcThermalLoadTypeEnum
	526	typedef ENUMERATION IfcThermalLoadTypeEnum;
	527	// C++ wrapper type for IfcReinforcingBarRoleEnum
	528	typedef ENUMERATION IfcReinforcingBarRoleEnum;
	529	// C++ wrapper type for IfcBenchmarkEnum
	530	typedef ENUMERATION IfcBenchmarkEnum;
	531	// C++ wrapper type for IfcPositivePlaneAngleMeasure
	532	typedef REAL IfcPositivePlaneAngleMeasure;
	533	// C++ wrapper type for IfcTextTransformation
	534	typedef STRING IfcTextTransformation;
	535	// C++ wrapper type for IfcDraughtingCalloutElement
	536	typedef SELECT IfcDraughtingCalloutElement;
	537	// C++ wrapper type for IfcRatioMeasure
	538	typedef REAL IfcRatioMeasure;
	539	// C++ wrapper type for IfcSolidAngleMeasure
	540	typedef REAL IfcSolidAngleMeasure;
	541	// C++ wrapper type for IfcPipeSegmentTypeEnum
	542	typedef ENUMERATION IfcPipeSegmentTypeEnum;
	543	// C++ wrapper type for IfcCableCarrierSegmentTypeEnum
	544	typedef ENUMERATION IfcCableCarrierSegmentTypeEnum;
	545	// C++ wrapper type for IfcColourOrFactor
	546	typedef SELECT IfcColourOrFactor;
	547	// C++ wrapper type for IfcIdentifier
	548	typedef STRING IfcIdentifier;
	549	// C++ wrapper type for IfcTendonTypeEnum
	550	typedef ENUMERATION IfcTendonTypeEnum;
	551	// C++ wrapper type for IfcControllerTypeEnum
	552	typedef ENUMERATION IfcControllerTypeEnum;
	553	// C++ wrapper type for IfcRadioActivityMeasure
	554	typedef REAL IfcRadioActivityMeasure;
	555	// C++ wrapper type for IfcTimeMeasure
	556	typedef REAL IfcTimeMeasure;
	557	// C++ wrapper type for IfcPumpTypeEnum
	558	typedef ENUMERATION IfcPumpTypeEnum;
87	559	// C++ wrapper type for IfcElectricHeaterTypeEnum
88	560	typedef ENUMERATION IfcElectricHeaterTypeEnum;
89		// C++ wrapper type for IfcObjectiveEnum
90		typedef ENUMERATION IfcObjectiveEnum;
91		// C++ wrapper type for IfcTextStyleSelect
92		typedef SELECT IfcTextStyleSelect;
93		// C++ wrapper type for IfcColumnTypeEnum
94		typedef ENUMERATION IfcColumnTypeEnum;
95		// C++ wrapper type for IfcGasTerminalTypeEnum
96		typedef ENUMERATION IfcGasTerminalTypeEnum;
97		// C++ wrapper type for IfcMassDensityMeasure
98		typedef REAL IfcMassDensityMeasure;
99		// C++ wrapper type for IfcSimpleValue
100		typedef SELECT IfcSimpleValue;
101		// C++ wrapper type for IfcElectricConductanceMeasure
102		typedef REAL IfcElectricConductanceMeasure;
103		// C++ wrapper type for IfcBuildingElementProxyTypeEnum
104		typedef ENUMERATION IfcBuildingElementProxyTypeEnum;
105		// C++ wrapper type for IfcJunctionBoxTypeEnum
106		typedef ENUMERATION IfcJunctionBoxTypeEnum;
107		// C++ wrapper type for IfcModulusOfElasticityMeasure
108		typedef REAL IfcModulusOfElasticityMeasure;
109		// C++ wrapper type for IfcActionSourceTypeEnum
110		typedef ENUMERATION IfcActionSourceTypeEnum;
111		// C++ wrapper type for IfcSIUnitName
112		typedef ENUMERATION IfcSIUnitName;
113		// C++ wrapper type for IfcRotationalMassMeasure
114		typedef REAL IfcRotationalMassMeasure;
115		// C++ wrapper type for IfcMemberTypeEnum
116		typedef ENUMERATION IfcMemberTypeEnum;
117		// C++ wrapper type for IfcTextDecoration
118		typedef STRING IfcTextDecoration;
119		// C++ wrapper type for IfcPositiveLengthMeasure
120		typedef REAL IfcPositiveLengthMeasure;
121		// C++ wrapper type for IfcAmountOfSubstanceMeasure
122		typedef REAL IfcAmountOfSubstanceMeasure;
123		// C++ wrapper type for IfcDoorStyleConstructionEnum
124		typedef ENUMERATION IfcDoorStyleConstructionEnum;
125		// C++ wrapper type for IfcAngularVelocityMeasure
126		typedef REAL IfcAngularVelocityMeasure;
127		// C++ wrapper type for IfcDirectionSenseEnum
128		typedef ENUMERATION IfcDirectionSenseEnum;
129		// C++ wrapper type for IfcNullStyle
130		typedef ENUMERATION IfcNullStyle;
131		// C++ wrapper type for IfcMonthInYearNumber
132		typedef INTEGER IfcMonthInYearNumber;
133		// C++ wrapper type for IfcRampFlightTypeEnum
134		typedef ENUMERATION IfcRampFlightTypeEnum;
135		// C++ wrapper type for IfcWindowStyleOperationEnum
136		typedef ENUMERATION IfcWindowStyleOperationEnum;
137		// C++ wrapper type for IfcCurvatureMeasure
138		typedef REAL IfcCurvatureMeasure;
139		// C++ wrapper type for IfcBooleanOperator
140		typedef ENUMERATION IfcBooleanOperator;
141		// C++ wrapper type for IfcDuctFittingTypeEnum
142		typedef ENUMERATION IfcDuctFittingTypeEnum;
143		// C++ wrapper type for IfcCurrencyEnum
144		typedef ENUMERATION IfcCurrencyEnum;
145		// C++ wrapper type for IfcObjectTypeEnum
146		typedef ENUMERATION IfcObjectTypeEnum;
147		// C++ wrapper type for IfcThermalLoadTypeEnum
148		typedef ENUMERATION IfcThermalLoadTypeEnum;
149		// C++ wrapper type for IfcIonConcentrationMeasure
150		typedef REAL IfcIonConcentrationMeasure;
151		// C++ wrapper type for IfcObjectReferenceSelect
152		typedef SELECT IfcObjectReferenceSelect;
153		// C++ wrapper type for IfcClassificationNotationSelect
154		typedef SELECT IfcClassificationNotationSelect;
155		// C++ wrapper type for IfcBSplineCurveForm
156		typedef ENUMERATION IfcBSplineCurveForm;
157		// C++ wrapper type for IfcElementCompositionEnum
158		typedef ENUMERATION IfcElementCompositionEnum;
159		// C++ wrapper type for IfcDraughtingCalloutElement
160		typedef SELECT IfcDraughtingCalloutElement;
161		// C++ wrapper type for IfcFillStyleSelect
162		typedef SELECT IfcFillStyleSelect;
163		// C++ wrapper type for IfcHeatFluxDensityMeasure
164		typedef REAL IfcHeatFluxDensityMeasure;
165		// C++ wrapper type for IfcGeometricProjectionEnum
166		typedef ENUMERATION IfcGeometricProjectionEnum;
167		// C++ wrapper type for IfcFontVariant
168		typedef STRING IfcFontVariant;
169		// C++ wrapper type for IfcThermalResistanceMeasure
170		typedef REAL IfcThermalResistanceMeasure;
171		// C++ wrapper type for IfcReflectanceMethodEnum
172		typedef ENUMERATION IfcReflectanceMethodEnum;
173		// C++ wrapper type for IfcSlabTypeEnum
174		typedef ENUMERATION IfcSlabTypeEnum;
175		// C++ wrapper type for IfcPositiveRatioMeasure
176		typedef REAL IfcPositiveRatioMeasure;
177		// C++ wrapper type for IfcInternalOrExternalEnum
178		typedef ENUMERATION IfcInternalOrExternalEnum;
179		// C++ wrapper type for IfcDimensionExtentUsage
180		typedef ENUMERATION IfcDimensionExtentUsage;
181		// C++ wrapper type for IfcPipeFittingTypeEnum
182		typedef ENUMERATION IfcPipeFittingTypeEnum;
183		// C++ wrapper type for IfcSanitaryTerminalTypeEnum
184		typedef ENUMERATION IfcSanitaryTerminalTypeEnum;
185		// C++ wrapper type for IfcMinuteInHour
186		typedef INTEGER IfcMinuteInHour;
187		// C++ wrapper type for IfcWallTypeEnum
188		typedef ENUMERATION IfcWallTypeEnum;
189		// C++ wrapper type for IfcMolecularWeightMeasure
190		typedef REAL IfcMolecularWeightMeasure;
191		// C++ wrapper type for IfcUnitaryEquipmentTypeEnum
192		typedef ENUMERATION IfcUnitaryEquipmentTypeEnum;
193		// C++ wrapper type for IfcProcedureTypeEnum
194		typedef ENUMERATION IfcProcedureTypeEnum;
195		// C++ wrapper type for IfcDistributionChamberElementTypeEnum
196		typedef ENUMERATION IfcDistributionChamberElementTypeEnum;
197		// C++ wrapper type for IfcTextPath
198		typedef ENUMERATION IfcTextPath;
199		// C++ wrapper type for IfcCostScheduleTypeEnum
200		typedef ENUMERATION IfcCostScheduleTypeEnum;
201		// C++ wrapper type for IfcShell
202		typedef SELECT IfcShell;
203		// C++ wrapper type for IfcLinearMomentMeasure
204		typedef REAL IfcLinearMomentMeasure;
205		// C++ wrapper type for IfcElectricCurrentMeasure
206		typedef REAL IfcElectricCurrentMeasure;
207		// C++ wrapper type for IfcDaylightSavingHour
208		typedef INTEGER IfcDaylightSavingHour;
209		// C++ wrapper type for IfcNormalisedRatioMeasure
210		typedef REAL IfcNormalisedRatioMeasure;
211		// C++ wrapper type for IfcFanTypeEnum
212		typedef ENUMERATION IfcFanTypeEnum;
213		// C++ wrapper type for IfcContextDependentMeasure
214		typedef REAL IfcContextDependentMeasure;
215		// C++ wrapper type for IfcAheadOrBehind
216		typedef ENUMERATION IfcAheadOrBehind;
217		// C++ wrapper type for IfcFontStyle
218		typedef STRING IfcFontStyle;
219		// C++ wrapper type for IfcCooledBeamTypeEnum
220		typedef ENUMERATION IfcCooledBeamTypeEnum;
221		// C++ wrapper type for IfcSurfaceStyleElementSelect
222		typedef SELECT IfcSurfaceStyleElementSelect;
223		// C++ wrapper type for IfcYearNumber
224		typedef INTEGER IfcYearNumber;
225		// C++ wrapper type for IfcLabel
226		typedef STRING IfcLabel;
227		// C++ wrapper type for IfcTimeStamp
228		typedef INTEGER IfcTimeStamp;
229		// C++ wrapper type for IfcFireSuppressionTerminalTypeEnum
230		typedef ENUMERATION IfcFireSuppressionTerminalTypeEnum;
231		// C++ wrapper type for IfcDocumentConfidentialityEnum
232		typedef ENUMERATION IfcDocumentConfidentialityEnum;
233		// C++ wrapper type for IfcColourOrFactor
234		typedef SELECT IfcColourOrFactor;
235		// C++ wrapper type for IfcAirTerminalBoxTypeEnum
236		typedef ENUMERATION IfcAirTerminalBoxTypeEnum;
237		// C++ wrapper type for IfcNumericMeasure
238		typedef NUMBER IfcNumericMeasure;
239		// C++ wrapper type for IfcDerivedUnitEnum
240		typedef ENUMERATION IfcDerivedUnitEnum;
241		// C++ wrapper type for IfcCurveOrEdgeCurve
242		typedef SELECT IfcCurveOrEdgeCurve;
243		// C++ wrapper type for IfcLightEmissionSourceEnum
244		typedef ENUMERATION IfcLightEmissionSourceEnum;
245		// C++ wrapper type for IfcKinematicViscosityMeasure
246		typedef REAL IfcKinematicViscosityMeasure;
247		// C++ wrapper type for IfcBoxAlignment
248		typedef STRING IfcBoxAlignment;
249		// C++ wrapper type for IfcDocumentSelect
250		typedef SELECT IfcDocumentSelect;
251		// C++ wrapper type for IfcCableCarrierFittingTypeEnum
252		typedef ENUMERATION IfcCableCarrierFittingTypeEnum;
253		// C++ wrapper type for IfcPumpTypeEnum
254		typedef ENUMERATION IfcPumpTypeEnum;
255		// C++ wrapper type for IfcHourInDay
256		typedef INTEGER IfcHourInDay;
257		// C++ wrapper type for IfcProjectOrderRecordTypeEnum
258		typedef ENUMERATION IfcProjectOrderRecordTypeEnum;
259		// C++ wrapper type for IfcWindowStyleConstructionEnum
260		typedef ENUMERATION IfcWindowStyleConstructionEnum;
261		// C++ wrapper type for IfcPresentationStyleSelect
262		typedef SELECT IfcPresentationStyleSelect;
263		// C++ wrapper type for IfcCableSegmentTypeEnum
264		typedef ENUMERATION IfcCableSegmentTypeEnum;
265		// C++ wrapper type for IfcWasteTerminalTypeEnum
266		typedef ENUMERATION IfcWasteTerminalTypeEnum;
267		// C++ wrapper type for IfcIsothermalMoistureCapacityMeasure
268		typedef REAL IfcIsothermalMoistureCapacityMeasure;
269		// C++ wrapper type for IfcIdentifier
270		typedef STRING IfcIdentifier;
271		// C++ wrapper type for IfcRadioActivityMeasure
272		typedef REAL IfcRadioActivityMeasure;
273		// C++ wrapper type for IfcSymbolStyleSelect
274		typedef SELECT IfcSymbolStyleSelect;
275		// C++ wrapper type for IfcRoofTypeEnum
276		typedef ENUMERATION IfcRoofTypeEnum;
277		// C++ wrapper type for IfcReal
278		typedef REAL IfcReal;
279		// C++ wrapper type for IfcRoleEnum
280		typedef ENUMERATION IfcRoleEnum;
281		// C++ wrapper type for IfcMeasureValue
282		typedef SELECT IfcMeasureValue;
283		// C++ wrapper type for IfcPileTypeEnum
284		typedef ENUMERATION IfcPileTypeEnum;
285		// C++ wrapper type for IfcElectricCurrentEnum
286		typedef ENUMERATION IfcElectricCurrentEnum;
287		// C++ wrapper type for IfcTextTransformation
288		typedef STRING IfcTextTransformation;
289		// C++ wrapper type for IfcFilterTypeEnum
290		typedef ENUMERATION IfcFilterTypeEnum;
291		// C++ wrapper type for IfcTransformerTypeEnum
292		typedef ENUMERATION IfcTransformerTypeEnum;
293		// C++ wrapper type for IfcSurfaceSide
294		typedef ENUMERATION IfcSurfaceSide;
295		// C++ wrapper type for IfcThermalTransmittanceMeasure
296		typedef REAL IfcThermalTransmittanceMeasure;
297		// C++ wrapper type for IfcTubeBundleTypeEnum
298		typedef ENUMERATION IfcTubeBundleTypeEnum;
299		// C++ wrapper type for IfcLightFixtureTypeEnum
300		typedef ENUMERATION IfcLightFixtureTypeEnum;
301		// C++ wrapper type for IfcInductanceMeasure
302		typedef REAL IfcInductanceMeasure;
303		// C++ wrapper type for IfcGlobalOrLocalEnum
304		typedef ENUMERATION IfcGlobalOrLocalEnum;
305		// C++ wrapper type for IfcOutletTypeEnum
306		typedef ENUMERATION IfcOutletTypeEnum;
307		// C++ wrapper type for IfcWorkControlTypeEnum
308		typedef ENUMERATION IfcWorkControlTypeEnum;
309		// C++ wrapper type for IfcWarpingMomentMeasure
310		typedef REAL IfcWarpingMomentMeasure;
311		// C++ wrapper type for IfcDynamicViscosityMeasure
312		typedef REAL IfcDynamicViscosityMeasure;
313		// C++ wrapper type for IfcEnergySequenceEnum
314		typedef ENUMERATION IfcEnergySequenceEnum;
315		// C++ wrapper type for IfcFillAreaStyleTileShapeSelect
316		typedef SELECT IfcFillAreaStyleTileShapeSelect;
317		// C++ wrapper type for IfcPointOrVertexPoint
318		typedef SELECT IfcPointOrVertexPoint;
319		// C++ wrapper type for IfcVibrationIsolatorTypeEnum
320		typedef ENUMERATION IfcVibrationIsolatorTypeEnum;
321		// C++ wrapper type for IfcTankTypeEnum
322		typedef ENUMERATION IfcTankTypeEnum;
323		// C++ wrapper type for IfcTimeSeriesDataTypeEnum
324		typedef ENUMERATION IfcTimeSeriesDataTypeEnum;
325		// C++ wrapper type for IfcSurfaceTextureEnum
326		typedef ENUMERATION IfcSurfaceTextureEnum;
327		// C++ wrapper type for IfcAddressTypeEnum
328		typedef ENUMERATION IfcAddressTypeEnum;
329		// C++ wrapper type for IfcChillerTypeEnum
330		typedef ENUMERATION IfcChillerTypeEnum;
331		// C++ wrapper type for IfcLightDistributionCurveEnum
332		typedef ENUMERATION IfcLightDistributionCurveEnum;
333		// C++ wrapper type for IfcReinforcingBarRoleEnum
334		typedef ENUMERATION IfcReinforcingBarRoleEnum;
335		// C++ wrapper type for IfcResourceConsumptionEnum
336		typedef ENUMERATION IfcResourceConsumptionEnum;
337		// C++ wrapper type for IfcCsgSelect
338		typedef SELECT IfcCsgSelect;
339		// C++ wrapper type for IfcModulusOfLinearSubgradeReactionMeasure
340		typedef REAL IfcModulusOfLinearSubgradeReactionMeasure;
341		// C++ wrapper type for IfcEvaporatorTypeEnum
342		typedef ENUMERATION IfcEvaporatorTypeEnum;
343		// C++ wrapper type for IfcTimeSeriesScheduleTypeEnum
344		typedef ENUMERATION IfcTimeSeriesScheduleTypeEnum;
345		// C++ wrapper type for IfcDayInMonthNumber
346		typedef INTEGER IfcDayInMonthNumber;
347		// C++ wrapper type for IfcElectricMotorTypeEnum
348		typedef ENUMERATION IfcElectricMotorTypeEnum;
349		// C++ wrapper type for IfcThermalConductivityMeasure
350		typedef REAL IfcThermalConductivityMeasure;
351		// C++ wrapper type for IfcEnergyMeasure
352		typedef REAL IfcEnergyMeasure;
353		// C++ wrapper type for IfcRotationalStiffnessMeasure
354		typedef REAL IfcRotationalStiffnessMeasure;
355		// C++ wrapper type for IfcDerivedMeasureValue
356		typedef SELECT IfcDerivedMeasureValue;
357		// C++ wrapper type for IfcDoorPanelOperationEnum
358		typedef ENUMERATION IfcDoorPanelOperationEnum;
359		// C++ wrapper type for IfcCurveStyleFontSelect
360		typedef SELECT IfcCurveStyleFontSelect;
361		// C++ wrapper type for IfcWindowPanelOperationEnum
362		typedef ENUMERATION IfcWindowPanelOperationEnum;
363		// C++ wrapper type for IfcDataOriginEnum
364		typedef ENUMERATION IfcDataOriginEnum;
365		// C++ wrapper type for IfcStairTypeEnum
366		typedef ENUMERATION IfcStairTypeEnum;
367		// C++ wrapper type for IfcRailingTypeEnum
368		typedef ENUMERATION IfcRailingTypeEnum;
369		// C++ wrapper type for IfcPowerMeasure
370		typedef REAL IfcPowerMeasure;
371		// C++ wrapper type for IfcStackTerminalTypeEnum
372		typedef ENUMERATION IfcStackTerminalTypeEnum;
373		// C++ wrapper type for IfcHatchLineDistanceSelect
374		typedef SELECT IfcHatchLineDistanceSelect;
375		// C++ wrapper type for IfcTrimmingSelect
376		typedef SELECT IfcTrimmingSelect;
377		// C++ wrapper type for IfcThermalExpansionCoefficientMeasure
378		typedef REAL IfcThermalExpansionCoefficientMeasure;
379		// C++ wrapper type for IfcLightDistributionDataSourceSelect
380		typedef SELECT IfcLightDistributionDataSourceSelect;
381		// C++ wrapper type for IfcTorqueMeasure
382		typedef REAL IfcTorqueMeasure;
383		// C++ wrapper type for IfcMassPerLengthMeasure
384		typedef REAL IfcMassPerLengthMeasure;
385		// C++ wrapper type for IfcValveTypeEnum
386		typedef ENUMERATION IfcValveTypeEnum;
387		// C++ wrapper type for IfcWindowPanelPositionEnum
388		typedef ENUMERATION IfcWindowPanelPositionEnum;
389		// C++ wrapper type for IfcSurfaceOrFaceSurface
390		typedef SELECT IfcSurfaceOrFaceSurface;
391		// C++ wrapper type for IfcPropertySourceEnum
392		typedef ENUMERATION IfcPropertySourceEnum;
393		// C++ wrapper type for IfcCableCarrierSegmentTypeEnum
394		typedef ENUMERATION IfcCableCarrierSegmentTypeEnum;
395		// C++ wrapper type for IfcCountMeasure
396		typedef NUMBER IfcCountMeasure;
397		// C++ wrapper type for IfcFontWeight
398		typedef STRING IfcFontWeight;
399		// C++ wrapper type for IfcPhysicalOrVirtualEnum
400		typedef ENUMERATION IfcPhysicalOrVirtualEnum;
401		// C++ wrapper type for IfcSpaceTypeEnum
402		typedef ENUMERATION IfcSpaceTypeEnum;
403		// C++ wrapper type for IfcVolumetricFlowRateMeasure
404		typedef REAL IfcVolumetricFlowRateMeasure;
405		// C++ wrapper type for IfcLuminousFluxMeasure
406		typedef REAL IfcLuminousFluxMeasure;
407		// C++ wrapper type for IfcEvaporativeCoolerTypeEnum
408		typedef ENUMERATION IfcEvaporativeCoolerTypeEnum;
409		// C++ wrapper type for IfcLayeredItem
410		typedef SELECT IfcLayeredItem;
411		// C++ wrapper type for IfcModulusOfSubgradeReactionMeasure
412		typedef REAL IfcModulusOfSubgradeReactionMeasure;
413		// C++ wrapper type for IfcHeatExchangerTypeEnum
414		typedef ENUMERATION IfcHeatExchangerTypeEnum;
415		// C++ wrapper type for IfcProtectiveDeviceTypeEnum
416		typedef ENUMERATION IfcProtectiveDeviceTypeEnum;
417		// C++ wrapper type for IfcDamperTypeEnum
418		typedef ENUMERATION IfcDamperTypeEnum;
419		// C++ wrapper type for IfcControllerTypeEnum
420		typedef ENUMERATION IfcControllerTypeEnum;
421		// C++ wrapper type for IfcMassFlowRateMeasure
422		typedef REAL IfcMassFlowRateMeasure;
423		// C++ wrapper type for IfcAssemblyPlaceEnum
424		typedef ENUMERATION IfcAssemblyPlaceEnum;
425		// C++ wrapper type for IfcAreaMeasure
426		typedef REAL IfcAreaMeasure;
427		// C++ wrapper type for IfcServiceLifeFactorTypeEnum
428		typedef ENUMERATION IfcServiceLifeFactorTypeEnum;
429		// C++ wrapper type for IfcVolumeMeasure
430		typedef REAL IfcVolumeMeasure;
431	561	// C++ wrapper type for IfcBeamTypeEnum
432	562	typedef ENUMERATION IfcBeamTypeEnum;
433	563	// C++ wrapper type for IfcStateEnum
434	564	typedef ENUMERATION IfcStateEnum;
435		// C++ wrapper type for IfcSpaceHeaterTypeEnum
436		typedef ENUMERATION IfcSpaceHeaterTypeEnum;
437		// C++ wrapper type for IfcSectionTypeEnum
438		typedef ENUMERATION IfcSectionTypeEnum;
439		// C++ wrapper type for IfcFootingTypeEnum
440		typedef ENUMERATION IfcFootingTypeEnum;
441		// C++ wrapper type for IfcMonetaryMeasure
442		typedef REAL IfcMonetaryMeasure;
443		// C++ wrapper type for IfcLoadGroupTypeEnum
444		typedef ENUMERATION IfcLoadGroupTypeEnum;
445		// C++ wrapper type for IfcElectricGeneratorTypeEnum
446		typedef ENUMERATION IfcElectricGeneratorTypeEnum;
447		// C++ wrapper type for IfcFlowMeterTypeEnum
448		typedef ENUMERATION IfcFlowMeterTypeEnum;
449		// C++ wrapper type for IfcMaterialSelect
450		typedef SELECT IfcMaterialSelect;
	565	// C++ wrapper type for IfcSIPrefix
	566	typedef ENUMERATION IfcSIPrefix;
	567	// C++ wrapper type for IfcNumericMeasure
	568	typedef NUMBER IfcNumericMeasure;
	569	// C++ wrapper type for IfcOutletTypeEnum
	570	typedef ENUMERATION IfcOutletTypeEnum;
	571	// C++ wrapper type for IfcCompoundPlaneAngleMeasure
	572	typedef ListOf< INTEGER, 3, 3 > IfcCompoundPlaneAngleMeasure;
	573	// C++ wrapper type for IfcServiceLifeFactorTypeEnum
	574	typedef ENUMERATION IfcServiceLifeFactorTypeEnum;
	575	// C++ wrapper type for IfcLogicalOperatorEnum
	576	typedef ENUMERATION IfcLogicalOperatorEnum;
	577	// C++ wrapper type for IfcBooleanOperand
	578	typedef SELECT IfcBooleanOperand;
	579	// C++ wrapper type for IfcObjectReferenceSelect
	580	typedef SELECT IfcObjectReferenceSelect;
	581	// C++ wrapper type for IfcCooledBeamTypeEnum
	582	typedef ENUMERATION IfcCooledBeamTypeEnum;
	583	// C++ wrapper type for IfcDuctSilencerTypeEnum
	584	typedef ENUMERATION IfcDuctSilencerTypeEnum;
	585	// C++ wrapper type for IfcSectionalAreaIntegralMeasure
	586	typedef REAL IfcSectionalAreaIntegralMeasure;
	587	// C++ wrapper type for IfcFontVariant
	588	typedef STRING IfcFontVariant;
	589	// C++ wrapper type for IfcVolumetricFlowRateMeasure
	590	typedef REAL IfcVolumetricFlowRateMeasure;
	591	// C++ wrapper type for IfcPlateTypeEnum
	592	typedef ENUMERATION IfcPlateTypeEnum;
	593	// C++ wrapper type for IfcEnvironmentalImpactCategoryEnum
	594	typedef ENUMERATION IfcEnvironmentalImpactCategoryEnum;
	595	// C++ wrapper type for IfcVibrationIsolatorTypeEnum
	596	typedef ENUMERATION IfcVibrationIsolatorTypeEnum;
	597	// C++ wrapper type for IfcThermodynamicTemperatureMeasure
	598	typedef REAL IfcThermodynamicTemperatureMeasure;
	599	// C++ wrapper type for IfcRotationalMassMeasure
	600	typedef REAL IfcRotationalMassMeasure;
	601	// C++ wrapper type for IfcSecondInMinute
	602	typedef REAL IfcSecondInMinute;
	603	// C++ wrapper type for IfcDayInMonthNumber
	604	typedef INTEGER IfcDayInMonthNumber;
	605	// C++ wrapper type for IfcDimensionCount
	606	typedef INTEGER IfcDimensionCount;
	607	// C++ wrapper type for IfcWindowStyleOperationEnum
	608	typedef ENUMERATION IfcWindowStyleOperationEnum;
	609	// C++ wrapper type for IfcThermalResistanceMeasure
	610	typedef REAL IfcThermalResistanceMeasure;
	611	// C++ wrapper type for IfcMeasureValue
	612	typedef SELECT IfcMeasureValue;
	613	// C++ wrapper type for IfcWindowPanelOperationEnum
	614	typedef ENUMERATION IfcWindowPanelOperationEnum;
	615	// C++ wrapper type for IfcChillerTypeEnum
	616	typedef ENUMERATION IfcChillerTypeEnum;
	617	// C++ wrapper type for IfcPositiveRatioMeasure
	618	typedef REAL IfcPositiveRatioMeasure;
	619	// C++ wrapper type for IfcInteger
	620	typedef INTEGER IfcInteger;
	621	// C++ wrapper type for IfcLogical
	622	typedef LOGICAL IfcLogical;
	623	// C++ wrapper type for IfcJunctionBoxTypeEnum
	624	typedef ENUMERATION IfcJunctionBoxTypeEnum;
	625	// C++ wrapper type for IfcAddressTypeEnum
	626	typedef ENUMERATION IfcAddressTypeEnum;
	627	// C++ wrapper type for IfcWasteTerminalTypeEnum
	628	typedef ENUMERATION IfcWasteTerminalTypeEnum;
	629	// C++ wrapper type for IfcTrimmingSelect
	630	typedef SELECT IfcTrimmingSelect;
	631	// C++ wrapper type for IfcLightEmissionSourceEnum
	632	typedef ENUMERATION IfcLightEmissionSourceEnum;
	633	// C++ wrapper type for IfcSoundScaleEnum
	634	typedef ENUMERATION IfcSoundScaleEnum;
	635	// C++ wrapper type for IfcLuminousFluxMeasure
	636	typedef REAL IfcLuminousFluxMeasure;
	637	// C++ wrapper type for IfcElectricResistanceMeasure
	638	typedef REAL IfcElectricResistanceMeasure;
	639	// C++ wrapper type for IfcIntegerCountRateMeasure
	640	typedef INTEGER IfcIntegerCountRateMeasure;
	641	// C++ wrapper type for IfcPhysicalOrVirtualEnum
	642	typedef ENUMERATION IfcPhysicalOrVirtualEnum;
	643	// C++ wrapper type for IfcMolecularWeightMeasure
	644	typedef REAL IfcMolecularWeightMeasure;
	645	// C++ wrapper type for IfcProfileTypeEnum
	646	typedef ENUMERATION IfcProfileTypeEnum;
	647	// C++ wrapper type for IfcBoxAlignment
	648	typedef STRING IfcBoxAlignment;
	649	// C++ wrapper type for IfcGlobalOrLocalEnum
	650	typedef ENUMERATION IfcGlobalOrLocalEnum;
	651	// C++ wrapper type for IfcSpecularRoughness
	652	typedef REAL IfcSpecularRoughness;
	653	// C++ wrapper type for IfcLampTypeEnum
	654	typedef ENUMERATION IfcLampTypeEnum;
	655	// C++ wrapper type for IfcPileTypeEnum
	656	typedef ENUMERATION IfcPileTypeEnum;
	657	// C++ wrapper type for IfcElectricCurrentMeasure
	658	typedef REAL IfcElectricCurrentMeasure;
	659	// C++ wrapper type for IfcFanTypeEnum
	660	typedef ENUMERATION IfcFanTypeEnum;
	661	// C++ wrapper type for IfcSurfaceOrFaceSurface
	662	typedef SELECT IfcSurfaceOrFaceSurface;
	663	// C++ wrapper type for IfcPipeFittingTypeEnum
	664	typedef ENUMERATION IfcPipeFittingTypeEnum;
	665	// C++ wrapper type for IfcTankTypeEnum
	666	typedef ENUMERATION IfcTankTypeEnum;
	667	// C++ wrapper type for IfcCurveFontOrScaledCurveFontSelect
	668	typedef SELECT IfcCurveFontOrScaledCurveFontSelect;
	669	// C++ wrapper type for IfcWindowStyleConstructionEnum
	670	typedef ENUMERATION IfcWindowStyleConstructionEnum;
	671	// C++ wrapper type for IfcAirTerminalBoxTypeEnum
	672	typedef ENUMERATION IfcAirTerminalBoxTypeEnum;
	673	// C++ wrapper type for IfcStairFlightTypeEnum
	674	typedef ENUMERATION IfcStairFlightTypeEnum;
	675	// C++ wrapper type for IfcLuminousIntensityMeasure
	676	typedef REAL IfcLuminousIntensityMeasure;
	677	// C++ wrapper type for IfcMotorConnectionTypeEnum
	678	typedef ENUMERATION IfcMotorConnectionTypeEnum;
	679	// C++ wrapper type for IfcPlaneAngleMeasure
	680	typedef REAL IfcPlaneAngleMeasure;
	681	// C++ wrapper type for IfcActuatorTypeEnum
	682	typedef ENUMERATION IfcActuatorTypeEnum;
	683	// C++ wrapper type for IfcColumnTypeEnum
	684	typedef ENUMERATION IfcColumnTypeEnum;
	685	// C++ wrapper type for IfcTextFontSelect
	686	typedef SELECT IfcTextFontSelect;
	687	// C++ wrapper type for IfcDoorPanelPositionEnum
	688	typedef ENUMERATION IfcDoorPanelPositionEnum;
	689	// C++ wrapper type for IfcCoilTypeEnum
	690	typedef ENUMERATION IfcCoilTypeEnum;
	691	// C++ wrapper type for IfcAngularVelocityMeasure
	692	typedef REAL IfcAngularVelocityMeasure;
451	693	// C++ wrapper type for IfcAnalysisModelTypeEnum
452	694	typedef ENUMERATION IfcAnalysisModelTypeEnum;
453		// C++ wrapper type for IfcTemperatureGradientMeasure
454		typedef REAL IfcTemperatureGradientMeasure;
455		// C++ wrapper type for IfcModulusOfRotationalSubgradeReactionMeasure
456		typedef REAL IfcModulusOfRotationalSubgradeReactionMeasure;
457		// C++ wrapper type for IfcColour
458		typedef SELECT IfcColour;
459		// C++ wrapper type for IfcCurtainWallTypeEnum
460		typedef ENUMERATION IfcCurtainWallTypeEnum;
461		// C++ wrapper type for IfcMetricValueSelect
462		typedef SELECT IfcMetricValueSelect;
463		// C++ wrapper type for IfcTextAlignment
464		typedef STRING IfcTextAlignment;
465		// C++ wrapper type for IfcDoorPanelPositionEnum
466		typedef ENUMERATION IfcDoorPanelPositionEnum;
467		// C++ wrapper type for IfcPlateTypeEnum
468		typedef ENUMERATION IfcPlateTypeEnum;
469		// C++ wrapper type for IfcSectionalAreaIntegralMeasure
470		typedef REAL IfcSectionalAreaIntegralMeasure;
471		// C++ wrapper type for IfcPresentableText
472		typedef STRING IfcPresentableText;
473		// C++ wrapper type for IfcVaporPermeabilityMeasure
474		typedef REAL IfcVaporPermeabilityMeasure;
475		// C++ wrapper type for IfcStructuralSurfaceTypeEnum
476		typedef ENUMERATION IfcStructuralSurfaceTypeEnum;
477		// C++ wrapper type for IfcLinearVelocityMeasure
478		typedef REAL IfcLinearVelocityMeasure;
479		// C++ wrapper type for IfcIntegerCountRateMeasure
480		typedef INTEGER IfcIntegerCountRateMeasure;
481		// C++ wrapper type for IfcAirToAirHeatRecoveryTypeEnum
482		typedef ENUMERATION IfcAirToAirHeatRecoveryTypeEnum;
483		// C++ wrapper type for IfcDocumentStatusEnum
484		typedef ENUMERATION IfcDocumentStatusEnum;
485		// C++ wrapper type for IfcLengthMeasure
486		typedef REAL IfcLengthMeasure;
487		// C++ wrapper type for IfcPlanarForceMeasure
488		typedef REAL IfcPlanarForceMeasure;
489		// C++ wrapper type for IfcBooleanOperand
490		typedef SELECT IfcBooleanOperand;
491		// C++ wrapper type for IfcInteger
492		typedef INTEGER IfcInteger;
493		// C++ wrapper type for IfcRampTypeEnum
494		typedef ENUMERATION IfcRampTypeEnum;
495		// C++ wrapper type for IfcActorSelect
496		typedef SELECT IfcActorSelect;
497		// C++ wrapper type for IfcElectricChargeMeasure
498		typedef REAL IfcElectricChargeMeasure;
499		// C++ wrapper type for IfcGeometricSetSelect
500		typedef SELECT IfcGeometricSetSelect;
501		// C++ wrapper type for IfcConnectionTypeEnum
502		typedef ENUMERATION IfcConnectionTypeEnum;
503		// C++ wrapper type for IfcValue
504		typedef SELECT IfcValue;
505		// C++ wrapper type for IfcCoolingTowerTypeEnum
506		typedef ENUMERATION IfcCoolingTowerTypeEnum;
507		// C++ wrapper type for IfcPlaneAngleMeasure
508		typedef REAL IfcPlaneAngleMeasure;
509		// C++ wrapper type for IfcSwitchingDeviceTypeEnum
510		typedef ENUMERATION IfcSwitchingDeviceTypeEnum;
511		// C++ wrapper type for IfcFlowDirectionEnum
512		typedef ENUMERATION IfcFlowDirectionEnum;
513		// C++ wrapper type for IfcThermalLoadSourceEnum
514		typedef ENUMERATION IfcThermalLoadSourceEnum;
515		// C++ wrapper type for IfcTextFontSelect
516		typedef SELECT IfcTextFontSelect;
517		// C++ wrapper type for IfcSpecularHighlightSelect
518		typedef SELECT IfcSpecularHighlightSelect;
519		// C++ wrapper type for IfcAnalysisTheoryTypeEnum
520		typedef ENUMERATION IfcAnalysisTheoryTypeEnum;
521		// C++ wrapper type for IfcTextFontName
522		typedef STRING IfcTextFontName;
523		// C++ wrapper type for IfcElectricVoltageMeasure
524		typedef REAL IfcElectricVoltageMeasure;
525		// C++ wrapper type for IfcTendonTypeEnum
526		typedef ENUMERATION IfcTendonTypeEnum;
527		// C++ wrapper type for IfcSoundPressureMeasure
528		typedef REAL IfcSoundPressureMeasure;
	695	// C++ wrapper type for IfcLibrarySelect
	696	typedef SELECT IfcLibrarySelect;
	697	// C++ wrapper type for IfcForceMeasure
	698	typedef REAL IfcForceMeasure;
	699	// C++ wrapper type for IfcFillAreaStyleTileShapeSelect
	700	typedef SELECT IfcFillAreaStyleTileShapeSelect;
	701	// C++ wrapper type for IfcElectricApplianceTypeEnum
	702	typedef ENUMERATION IfcElectricApplianceTypeEnum;
	703	// C++ wrapper type for IfcSurfaceTextureEnum
	704	typedef ENUMERATION IfcSurfaceTextureEnum;
	705	// C++ wrapper type for IfcCharacterStyleSelect
	706	typedef SELECT IfcCharacterStyleSelect;
	707	// C++ wrapper type for IfcEnergyMeasure
	708	typedef REAL IfcEnergyMeasure;
	709	// C++ wrapper type for IfcReal
	710	typedef REAL IfcReal;
	711	// C++ wrapper type for IfcCompressorTypeEnum
	712	typedef ENUMERATION IfcCompressorTypeEnum;
529	713	// C++ wrapper type for IfcElectricDistributionPointFunctionEnum
530	714	typedef ENUMERATION IfcElectricDistributionPointFunctionEnum;
531		// C++ wrapper type for IfcSpecularRoughness
532		typedef REAL IfcSpecularRoughness;
533		// C++ wrapper type for IfcActionTypeEnum
534		typedef ENUMERATION IfcActionTypeEnum;
535		// C++ wrapper type for IfcReinforcingBarSurfaceEnum
536		typedef ENUMERATION IfcReinforcingBarSurfaceEnum;
537		// C++ wrapper type for IfcHumidifierTypeEnum
538		typedef ENUMERATION IfcHumidifierTypeEnum;
539		// C++ wrapper type for IfcIlluminanceMeasure
540		typedef REAL IfcIlluminanceMeasure;
541		// C++ wrapper type for IfcLibrarySelect
542		typedef SELECT IfcLibrarySelect;
543		// C++ wrapper type for IfcText
544		typedef STRING IfcText;
545		// C++ wrapper type for IfcLayerSetDirectionEnum
546		typedef ENUMERATION IfcLayerSetDirectionEnum;
547		// C++ wrapper type for IfcBoilerTypeEnum
548		typedef ENUMERATION IfcBoilerTypeEnum;
549		// C++ wrapper type for IfcTimeMeasure
550		typedef REAL IfcTimeMeasure;
551		// C++ wrapper type for IfcAccelerationMeasure
552		typedef REAL IfcAccelerationMeasure;
553		// C++ wrapper type for IfcElectricFlowStorageDeviceTypeEnum
554		typedef ENUMERATION IfcElectricFlowStorageDeviceTypeEnum;
555		// C++ wrapper type for IfcLuminousIntensityMeasure
556		typedef REAL IfcLuminousIntensityMeasure;
557		// C++ wrapper type for IfcDefinedSymbolSelect
558		typedef SELECT IfcDefinedSymbolSelect;
559		// C++ wrapper type for IfcUnitEnum
560		typedef ENUMERATION IfcUnitEnum;
561		// C++ wrapper type for IfcInventoryTypeEnum
562		typedef ENUMERATION IfcInventoryTypeEnum;
563		// C++ wrapper type for IfcStructuralActivityAssignmentSelect
564		typedef SELECT IfcStructuralActivityAssignmentSelect;
565		// C++ wrapper type for IfcElementAssemblyTypeEnum
566		typedef ENUMERATION IfcElementAssemblyTypeEnum;
567		// C++ wrapper type for IfcServiceLifeTypeEnum
568		typedef ENUMERATION IfcServiceLifeTypeEnum;
569		// C++ wrapper type for IfcCoveringTypeEnum
570		typedef ENUMERATION IfcCoveringTypeEnum;
571		// C++ wrapper type for IfcStairFlightTypeEnum
572		typedef ENUMERATION IfcStairFlightTypeEnum;
573		// C++ wrapper type for IfcSIPrefix
574		typedef ENUMERATION IfcSIPrefix;
575		// C++ wrapper type for IfcElectricCapacitanceMeasure
576		typedef REAL IfcElectricCapacitanceMeasure;
577		// C++ wrapper type for IfcFlowInstrumentTypeEnum
578		typedef ENUMERATION IfcFlowInstrumentTypeEnum;
579		// C++ wrapper type for IfcThermodynamicTemperatureMeasure
580		typedef REAL IfcThermodynamicTemperatureMeasure;
581		// C++ wrapper type for IfcGloballyUniqueId
582		typedef STRING IfcGloballyUniqueId;
583		// C++ wrapper type for IfcLampTypeEnum
584		typedef ENUMERATION IfcLampTypeEnum;
585		// C++ wrapper type for IfcMagneticFluxMeasure
586		typedef REAL IfcMagneticFluxMeasure;
587		// C++ wrapper type for IfcSolidAngleMeasure
588		typedef REAL IfcSolidAngleMeasure;
589		// C++ wrapper type for IfcFrequencyMeasure
590		typedef REAL IfcFrequencyMeasure;
591		// C++ wrapper type for IfcTransportElementTypeEnum
592		typedef ENUMERATION IfcTransportElementTypeEnum;
593		// C++ wrapper type for IfcSoundScaleEnum
594		typedef ENUMERATION IfcSoundScaleEnum;
595		// C++ wrapper type for IfcPHMeasure
596		typedef REAL IfcPHMeasure;
597		// C++ wrapper type for IfcActuatorTypeEnum
598		typedef ENUMERATION IfcActuatorTypeEnum;
599		// C++ wrapper type for IfcPositivePlaneAngleMeasure
600		typedef REAL IfcPositivePlaneAngleMeasure;
601		// C++ wrapper type for IfcAppliedValueSelect
602		typedef SELECT IfcAppliedValueSelect;
603		// C++ wrapper type for IfcSecondInMinute
604		typedef REAL IfcSecondInMinute;
605		// C++ wrapper type for IfcDuctSegmentTypeEnum
606		typedef ENUMERATION IfcDuctSegmentTypeEnum;
607		// C++ wrapper type for IfcThermalAdmittanceMeasure
608		typedef REAL IfcThermalAdmittanceMeasure;
609		// C++ wrapper type for IfcSpecularExponent
610		typedef REAL IfcSpecularExponent;
611		// C++ wrapper type for IfcDateTimeSelect
612		typedef SELECT IfcDateTimeSelect;
613		// C++ wrapper type for IfcTransitionCode
614		typedef ENUMERATION IfcTransitionCode;
615		// C++ wrapper type for IfcDimensionCount
616		typedef INTEGER IfcDimensionCount;
617		// C++ wrapper type for IfcLinearStiffnessMeasure
618		typedef REAL IfcLinearStiffnessMeasure;
619		// C++ wrapper type for IfcCompoundPlaneAngleMeasure
620		typedef ListOf< INTEGER, 3, 3 > IfcCompoundPlaneAngleMeasure;
621		// C++ wrapper type for IfcElectricApplianceTypeEnum
622		typedef ENUMERATION IfcElectricApplianceTypeEnum;
623		// C++ wrapper type for IfcProfileTypeEnum
624		typedef ENUMERATION IfcProfileTypeEnum;
625		// C++ wrapper type for IfcCurveFontOrScaledCurveFontSelect
626		typedef SELECT IfcCurveFontOrScaledCurveFontSelect;
627		// C++ wrapper type for IfcProjectedOrTrueLengthEnum
628		typedef ENUMERATION IfcProjectedOrTrueLengthEnum;
629		// C++ wrapper type for IfcAbsorbedDoseMeasure
630		typedef REAL IfcAbsorbedDoseMeasure;
631		// C++ wrapper type for IfcParameterValue
632		typedef REAL IfcParameterValue;
633		// C++ wrapper type for IfcPileConstructionEnum
634		typedef ENUMERATION IfcPileConstructionEnum;
635		// C++ wrapper type for IfcMotorConnectionTypeEnum
636		typedef ENUMERATION IfcMotorConnectionTypeEnum;
637		// C++ wrapper type for IfcOccupantTypeEnum
638		typedef ENUMERATION IfcOccupantTypeEnum;
639		// C++ wrapper type for IfcUnit
640		typedef SELECT IfcUnit;
641		// C++ wrapper type for IfcLinearForceMeasure
642		typedef REAL IfcLinearForceMeasure;
643		// C++ wrapper type for IfcCondenserTypeEnum
644		typedef ENUMERATION IfcCondenserTypeEnum;
645		// C++ wrapper type for IfcDescriptiveMeasure
646		typedef STRING IfcDescriptiveMeasure;
647		// C++ wrapper type for IfcMomentOfInertiaMeasure
648		typedef REAL IfcMomentOfInertiaMeasure;
649		// C++ wrapper type for IfcDoseEquivalentMeasure
650		typedef REAL IfcDoseEquivalentMeasure;
651		// C++ wrapper type for IfcOrientationSelect
652		typedef SELECT IfcOrientationSelect;
653		// C++ wrapper type for IfcLogical
654		typedef LOGICAL IfcLogical;
655		// C++ wrapper type for IfcSizeSelect
656		typedef SELECT IfcSizeSelect;
657		// C++ wrapper type for IfcEnvironmentalImpactCategoryEnum
658		typedef ENUMERATION IfcEnvironmentalImpactCategoryEnum;
659		// C++ wrapper type for IfcLogicalOperatorEnum
660		typedef ENUMERATION IfcLogicalOperatorEnum;
661		// C++ wrapper type for IfcCompressorTypeEnum
662		typedef ENUMERATION IfcCompressorTypeEnum;
663		// C++ wrapper type for IfcBenchmarkEnum
664		typedef ENUMERATION IfcBenchmarkEnum;
665		// C++ wrapper type for IfcRatioMeasure
666		typedef REAL IfcRatioMeasure;
667		// C++ wrapper type for IfcVectorOrDirection
668		typedef SELECT IfcVectorOrDirection;
669		// C++ wrapper type for IfcConstraintEnum
670		typedef ENUMERATION IfcConstraintEnum;
671		// C++ wrapper type for IfcAlarmTypeEnum
672		typedef ENUMERATION IfcAlarmTypeEnum;
673		// C++ wrapper type for IfcLuminousIntensityDistributionMeasure
674		typedef REAL IfcLuminousIntensityDistributionMeasure;
675		// C++ wrapper type for IfcArithmeticOperatorEnum
676		typedef ENUMERATION IfcArithmeticOperatorEnum;
677		// C++ wrapper type for IfcAxis2Placement
678		typedef SELECT IfcAxis2Placement;
679		// C++ wrapper type for IfcForceMeasure
680		typedef REAL IfcForceMeasure;
681		// C++ wrapper type for IfcTrimmingPreference
682		typedef ENUMERATION IfcTrimmingPreference;
683		// C++ wrapper type for IfcElectricResistanceMeasure
684		typedef REAL IfcElectricResistanceMeasure;
685		// C++ wrapper type for IfcWarpingConstantMeasure
686		typedef REAL IfcWarpingConstantMeasure;
687		// C++ wrapper type for IfcPipeSegmentTypeEnum
688		typedef ENUMERATION IfcPipeSegmentTypeEnum;
689		// C++ wrapper type for IfcConditionCriterionSelect
690		typedef SELECT IfcConditionCriterionSelect;
691		// C++ wrapper type for IfcShearModulusMeasure
692		typedef REAL IfcShearModulusMeasure;
693		// C++ wrapper type for IfcPressureMeasure
694		typedef REAL IfcPressureMeasure;
695		// C++ wrapper type for IfcDuctSilencerTypeEnum
696		typedef ENUMERATION IfcDuctSilencerTypeEnum;
697		// C++ wrapper type for IfcBoolean
698		typedef BOOLEAN IfcBoolean;
699		// C++ wrapper type for IfcSectionModulusMeasure
700		typedef REAL IfcSectionModulusMeasure;
701		// C++ wrapper type for IfcChangeActionEnum
702		typedef ENUMERATION IfcChangeActionEnum;
703		// C++ wrapper type for IfcCoilTypeEnum
704		typedef ENUMERATION IfcCoilTypeEnum;
705		// C++ wrapper type for IfcMassMeasure
706		typedef REAL IfcMassMeasure;
707		// C++ wrapper type for IfcStructuralCurveTypeEnum
708		typedef ENUMERATION IfcStructuralCurveTypeEnum;
709		// C++ wrapper type for IfcPermeableCoveringOperationEnum
710		typedef ENUMERATION IfcPermeableCoveringOperationEnum;
711		// C++ wrapper type for IfcMagneticFluxDensityMeasure
712		typedef REAL IfcMagneticFluxDensityMeasure;
713		// C++ wrapper type for IfcMoistureDiffusivityMeasure
714		typedef REAL IfcMoistureDiffusivityMeasure;
715	715
716	716
717	717	// ******************************************************************************

723	723	struct IfcTypeObject;
724	724	struct IfcTypeProduct;
725	725	struct IfcElementType;
726		struct IfcFurnishingElementType;
727		struct IfcFurnitureType;
	726	struct IfcDistributionElementType;
	727	struct IfcDistributionFlowElementType;
	728	struct IfcFlowControllerType;
	729	struct IfcElectricTimeControlType;
	730	struct IfcRepresentation;
	731	struct IfcShapeModel;
	732	struct IfcTopologyRepresentation;
	733	struct IfcRelationship;
	734	struct IfcRelConnects;
	735	typedef NotImplemented IfcRelCoversSpaces; // (not currently used by Assimp)
	736	struct IfcFlowFittingType;
	737	struct IfcCableCarrierFittingType;
	738	typedef NotImplemented IfcStructuralConnectionCondition; // (not currently used by Assimp)
	739	typedef NotImplemented IfcSlippageConnectionCondition; // (not currently used by Assimp)
	740	struct IfcEnergyConversionDeviceType;
	741	struct IfcCoilType;
728	742	struct IfcObject;
729		struct IfcProduct;
730		struct IfcGrid;
	743	struct IfcControl;
	744	struct IfcPerformanceHistory;
731	745	struct IfcRepresentationItem;
732	746	struct IfcGeometricRepresentationItem;
733		struct IfcOneDirectionRepeatFactor;
734		struct IfcTwoDirectionRepeatFactor;
	747	struct IfcTextLiteral;
	748	struct IfcTextLiteralWithExtent;
	749	struct IfcProductRepresentation;
	750	struct IfcProduct;
735	751	struct IfcElement;
736		struct IfcElementComponent;
737		typedef NotImplemented IfcLocalTime; // (not currently used by Assimp)
738		struct IfcSpatialStructureElementType;
739		struct IfcControl;
740		struct IfcActionRequest;
741		typedef NotImplemented IfcTextureVertex; // (not currently used by Assimp)
742		typedef NotImplemented IfcPropertyDefinition; // (not currently used by Assimp)
743		typedef NotImplemented IfcPropertySetDefinition; // (not currently used by Assimp)
744		typedef NotImplemented IfcFluidFlowProperties; // (not currently used by Assimp)
745		typedef NotImplemented IfcDocumentInformation; // (not currently used by Assimp)
746		typedef NotImplemented IfcCalendarDate; // (not currently used by Assimp)
747		struct IfcDistributionElementType;
748		struct IfcDistributionFlowElementType;
749		struct IfcEnergyConversionDeviceType;
750		struct IfcCooledBeamType;
751		struct IfcCsgPrimitive3D;
752		struct IfcRectangularPyramid;
753		typedef NotImplemented IfcStructuralLoad; // (not currently used by Assimp)
754		typedef NotImplemented IfcStructuralLoadStatic; // (not currently used by Assimp)
755		typedef NotImplemented IfcStructuralLoadLinearForce; // (not currently used by Assimp)
	752	struct IfcDistributionElement;
	753	struct IfcDistributionFlowElement;
	754	struct IfcCurve;
	755	struct IfcBoundedCurve;
	756	struct IfcCompositeCurve;
	757	struct Ifc2DCompositeCurve;
	758	typedef NotImplemented IfcBoundaryCondition; // (not currently used by Assimp)
	759	typedef NotImplemented IfcBoundaryFaceCondition; // (not currently used by Assimp)
	760	struct IfcCartesianTransformationOperator;
	761	struct IfcCartesianTransformationOperator3D;
	762	struct IfcProperty;
	763	struct IfcSimpleProperty;
	764	struct IfcPropertyEnumeratedValue;
	765	typedef NotImplemented IfcPresentationLayerAssignment; // (not currently used by Assimp)
	766	typedef NotImplemented IfcPresentationLayerWithStyle; // (not currently used by Assimp)
	767	struct IfcBuildingElementType;
	768	struct IfcStairFlightType;
756	769	struct IfcSurface;
757		struct IfcBoundedSurface;
758		struct IfcRectangularTrimmedSurface;
759		typedef NotImplemented IfcPhysicalQuantity; // (not currently used by Assimp)
760		typedef NotImplemented IfcPhysicalSimpleQuantity; // (not currently used by Assimp)
761		typedef NotImplemented IfcQuantityVolume; // (not currently used by Assimp)
762		typedef NotImplemented IfcQuantityArea; // (not currently used by Assimp)
763		struct IfcGroup;
764		struct IfcRelationship;
765		typedef NotImplemented IfcRelAssigns; // (not currently used by Assimp)
766		typedef NotImplemented IfcRelAssignsToActor; // (not currently used by Assimp)
767		struct IfcHalfSpaceSolid;
768		struct IfcPolygonalBoundedHalfSpace;
769		typedef NotImplemented IfcEnergyProperties; // (not currently used by Assimp)
770		struct IfcAirToAirHeatRecoveryType;
771		struct IfcFlowFittingType;
772		struct IfcPipeFittingType;
773		struct IfcRepresentation;
774		struct IfcStyleModel;
775		struct IfcStyledRepresentation;
776		typedef NotImplemented IfcRelAssignsToControl; // (not currently used by Assimp)
777		typedef NotImplemented IfcRelAssignsToProjectOrder; // (not currently used by Assimp)
778		typedef NotImplemented IfcDimensionalExponents; // (not currently used by Assimp)
779		struct IfcBooleanResult;
780		typedef NotImplemented IfcSoundProperties; // (not currently used by Assimp)
781		struct IfcFeatureElement;
782		struct IfcFeatureElementSubtraction;
783		struct IfcOpeningElement;
784		struct IfcConditionCriterion;
785		struct IfcFlowTerminalType;
786		struct IfcFlowControllerType;
787		struct IfcSwitchingDeviceType;
788		struct IfcSystem;
789		struct IfcElectricalCircuit;
790		typedef NotImplemented IfcActorRole; // (not currently used by Assimp)
791		typedef NotImplemented IfcDateAndTime; // (not currently used by Assimp)
792		typedef NotImplemented IfcDraughtingCalloutRelationship; // (not currently used by Assimp)
793		typedef NotImplemented IfcDimensionCalloutRelationship; // (not currently used by Assimp)
794		typedef NotImplemented IfcDerivedUnitElement; // (not currently used by Assimp)
795		typedef NotImplemented IfcExternalReference; // (not currently used by Assimp)
796		typedef NotImplemented IfcClassificationReference; // (not currently used by Assimp)
797		struct IfcUnitaryEquipmentType;
798		typedef NotImplemented IfcProperty; // (not currently used by Assimp)
799		struct IfcPort;
800		typedef NotImplemented IfcAddress; // (not currently used by Assimp)
801		struct IfcPlacement;
802		typedef NotImplemented IfcPreDefinedItem; // (not currently used by Assimp)
803		typedef NotImplemented IfcPreDefinedColour; // (not currently used by Assimp)
804		typedef NotImplemented IfcDraughtingPreDefinedColour; // (not currently used by Assimp)
805		struct IfcProfileDef;
806		struct IfcArbitraryClosedProfileDef;
807		struct IfcCurve;
808		struct IfcConic;
809		struct IfcCircle;
810		typedef NotImplemented IfcAppliedValue; // (not currently used by Assimp)
811		typedef NotImplemented IfcEnvironmentalImpactValue; // (not currently used by Assimp)
812		typedef NotImplemented IfcSimpleProperty; // (not currently used by Assimp)
813		typedef NotImplemented IfcPropertySingleValue; // (not currently used by Assimp)
814	770	struct IfcElementarySurface;
815	771	struct IfcPlane;
816		typedef NotImplemented IfcPropertyBoundedValue; // (not currently used by Assimp)
817		struct IfcCostSchedule;
818		typedef NotImplemented IfcMonetaryUnit; // (not currently used by Assimp)
819		typedef NotImplemented IfcConnectionGeometry; // (not currently used by Assimp)
820		typedef NotImplemented IfcConnectionCurveGeometry; // (not currently used by Assimp)
821		struct IfcRightCircularCone;
822		struct IfcElementAssembly;
823		struct IfcBuildingElement;
824		struct IfcMember;
825		typedef NotImplemented IfcPropertyDependencyRelationship; // (not currently used by Assimp)
826		struct IfcBuildingElementProxy;
827		struct IfcStructuralActivity;
828		struct IfcStructuralAction;
829		struct IfcStructuralPlanarAction;
830		struct IfcTopologicalRepresentationItem;
831		struct IfcConnectedFaceSet;
832		struct IfcSweptSurface;
833		struct IfcSurfaceOfLinearExtrusion;
834		struct IfcArbitraryProfileDefWithVoids;
835		struct IfcProcess;
836		struct IfcProcedure;
837		typedef NotImplemented IfcCurveStyleFontPattern; // (not currently used by Assimp)
838		struct IfcVector;
839		struct IfcFaceBound;
840		struct IfcFaceOuterBound;
841		struct IfcFeatureElementAddition;
842		struct IfcNamedUnit;
843		struct IfcConversionBasedUnit;
844		typedef NotImplemented IfcStructuralLoadSingleForce; // (not currently used by Assimp)
845		struct IfcHeatExchangerType;
846		struct IfcPresentationStyleAssignment;
847		struct IfcFlowTreatmentDeviceType;
848		struct IfcFilterType;
849		struct IfcResource;
850		struct IfcEvaporativeCoolerType;
851		typedef NotImplemented IfcTextureCoordinate; // (not currently used by Assimp)
852		typedef NotImplemented IfcTextureCoordinateGenerator; // (not currently used by Assimp)
853		struct IfcOffsetCurve2D;
854		struct IfcEdge;
855		struct IfcSubedge;
856		struct IfcProxy;
857		struct IfcLine;
858		struct IfcColumn;
859		typedef NotImplemented IfcClassificationNotationFacet; // (not currently used by Assimp)
860		struct IfcObjectPlacement;
861		struct IfcGridPlacement;
862		struct IfcDistributionControlElementType;
863		typedef NotImplemented IfcStructuralLoadSingleForceWarping; // (not currently used by Assimp)
864		typedef NotImplemented IfcExternallyDefinedTextFont; // (not currently used by Assimp)
865		struct IfcRelConnects;
866		typedef NotImplemented IfcRelConnectsElements; // (not currently used by Assimp)
867		typedef NotImplemented IfcRelConnectsWithRealizingElements; // (not currently used by Assimp)
868		typedef NotImplemented IfcConstraintClassificationRelationship; // (not currently used by Assimp)
869		struct IfcAnnotation;
870		struct IfcPlate;
	772	struct IfcBooleanResult;
	773	struct IfcBooleanClippingResult;
871	774	struct IfcSolidModel;
872	775	struct IfcManifoldSolidBrep;
873		typedef NotImplemented IfcPreDefinedCurveFont; // (not currently used by Assimp)
874		typedef NotImplemented IfcBoundaryCondition; // (not currently used by Assimp)
875		typedef NotImplemented IfcBoundaryFaceCondition; // (not currently used by Assimp)
876		struct IfcFlowStorageDeviceType;
877		struct IfcStructuralItem;
878		struct IfcStructuralMember;
879		struct IfcStructuralCurveMember;
880		struct IfcStructuralConnection;
881		struct IfcStructuralSurfaceConnection;
882		struct IfcCoilType;
883		struct IfcDuctFittingType;
884		struct IfcStyledItem;
885		struct IfcAnnotationOccurrence;
886		struct IfcAnnotationCurveOccurrence;
887		struct IfcDimensionCurve;
888		struct IfcBoundedCurve;
889		struct IfcAxis1Placement;
890		typedef NotImplemented IfcLightIntensityDistribution; // (not currently used by Assimp)
891		typedef NotImplemented IfcPreDefinedSymbol; // (not currently used by Assimp)
892		struct IfcStructuralPointAction;
893		struct IfcSpatialStructureElement;
894		struct IfcSpace;
895		struct IfcContextDependentUnit;
896		typedef NotImplemented IfcVirtualGridIntersection; // (not currently used by Assimp)
897		typedef NotImplemented IfcRelAssociates; // (not currently used by Assimp)
898		typedef NotImplemented IfcRelAssociatesClassification; // (not currently used by Assimp)
899		struct IfcCoolingTowerType;
900		typedef NotImplemented IfcMaterialProperties; // (not currently used by Assimp)
901		typedef NotImplemented IfcGeneralMaterialProperties; // (not currently used by Assimp)
902		struct IfcFacetedBrepWithVoids;
903	776	typedef NotImplemented IfcProfileProperties; // (not currently used by Assimp)
904	777	typedef NotImplemented IfcGeneralProfileProperties; // (not currently used by Assimp)
905	778	typedef NotImplemented IfcStructuralProfileProperties; // (not currently used by Assimp)
906		struct IfcValveType;
907		struct IfcSystemFurnitureElementType;
908		struct IfcDiscreteAccessory;
	779	struct IfcFlowTerminalType;
	780	struct IfcStackTerminalType;
	781	struct IfcStructuralItem;
	782	struct IfcStructuralConnection;
	783	struct IfcStructuralCurveConnection;
	784	struct IfcJunctionBoxType;
	785	typedef NotImplemented IfcRelAssociates; // (not currently used by Assimp)
	786	typedef NotImplemented IfcRelAssociatesConstraint; // (not currently used by Assimp)
	787	struct IfcPropertyDefinition;
	788	struct IfcPropertySetDefinition;
	789	typedef NotImplemented IfcDoorPanelProperties; // (not currently used by Assimp)
	790	typedef NotImplemented IfcConstraintRelationship; // (not currently used by Assimp)
	791	typedef NotImplemented IfcSpaceThermalLoadProperties; // (not currently used by Assimp)
	792	typedef NotImplemented IfcLibraryInformation; // (not currently used by Assimp)
	793	struct IfcProcess;
	794	struct IfcTask;
	795	typedef NotImplemented IfcAppliedValue; // (not currently used by Assimp)
	796	typedef NotImplemented IfcEnvironmentalImpactValue; // (not currently used by Assimp)
	797	struct IfcRelFillsElement;
	798	struct IfcProcedure;
	799	typedef NotImplemented IfcStructuralLoad; // (not currently used by Assimp)
	800	typedef NotImplemented IfcStructuralLoadStatic; // (not currently used by Assimp)
	801	typedef NotImplemented IfcStructuralLoadSingleDisplacement; // (not currently used by Assimp)
	802	struct IfcProxy;
	803	typedef NotImplemented IfcCurveStyleFont; // (not currently used by Assimp)
	804	struct IfcResource;
	805	struct IfcConstructionResource;
	806	struct IfcSubContractResource;
	807	typedef NotImplemented IfcCalendarDate; // (not currently used by Assimp)
	808	typedef NotImplemented IfcDocumentElectronicFormat; // (not currently used by Assimp)
	809	struct IfcRelContainedInSpatialStructure;
	810	typedef NotImplemented IfcMaterialProperties; // (not currently used by Assimp)
	811	typedef NotImplemented IfcProductsOfCombustionProperties; // (not currently used by Assimp)
	812	struct IfcTopologicalRepresentationItem;
	813	struct IfcEdge;
	814	struct IfcEdgeCurve;
	815	struct IfcPlateType;
	816	struct IfcObjectPlacement;
	817	struct IfcGridPlacement;
	818	struct IfcFireSuppressionTerminalType;
	819	typedef NotImplemented IfcMechanicalMaterialProperties; // (not currently used by Assimp)
	820	struct IfcFlowStorageDevice;
909	821	typedef NotImplemented IfcPerson; // (not currently used by Assimp)
910		struct IfcBuildingElementType;
911		struct IfcRailingType;
912		struct IfcGasTerminalType;
913		typedef NotImplemented IfcTimeSeries; // (not currently used by Assimp)
914		typedef NotImplemented IfcIrregularTimeSeries; // (not currently used by Assimp)
915		struct IfcSpaceProgram;
916		struct IfcCovering;
917		typedef NotImplemented IfcShapeAspect; // (not currently used by Assimp)
	822	struct IfcSweptSurface;
	823	struct IfcSurfaceOfRevolution;
	824	struct IfcOrientedEdge;
	825	typedef NotImplemented IfcOwnerHistory; // (not currently used by Assimp)
	826	typedef NotImplemented IfcRelAssigns; // (not currently used by Assimp)
	827	typedef NotImplemented IfcRelAssignsToActor; // (not currently used by Assimp)
	828	struct IfcDirection;
	829	typedef NotImplemented IfcReinforcementBarProperties; // (not currently used by Assimp)
	830	struct IfcProfileDef;
	831	struct IfcParameterizedProfileDef;
	832	struct IfcCShapeProfileDef;
	833	struct IfcFeatureElement;
	834	struct IfcFeatureElementSubtraction;
	835	struct IfcEdgeFeature;
	836	struct IfcChamferEdgeFeature;
	837	struct IfcBuildingElement;
	838	struct IfcColumn;
	839	struct IfcPropertyReferenceValue;
	840	typedef NotImplemented IfcMaterialClassificationRelationship; // (not currently used by Assimp)
	841	struct IfcElectricMotorType;
	842	struct IfcSpatialStructureElementType;
	843	struct IfcSpaceType;
	844	typedef NotImplemented IfcExternalReference; // (not currently used by Assimp)
	845	typedef NotImplemented IfcExternallyDefinedHatchStyle; // (not currently used by Assimp)
	846	struct IfcColumnType;
	847	struct IfcCraneRailAShapeProfileDef;
	848	struct IfcCondenserType;
	849	typedef NotImplemented IfcRelConnectsElements; // (not currently used by Assimp)
	850	typedef NotImplemented IfcRelConnectsWithRealizingElements; // (not currently used by Assimp)
	851	struct IfcCircleProfileDef;
	852	struct IfcCircleHollowProfileDef;
	853	typedef NotImplemented IfcOrganizationRelationship; // (not currently used by Assimp)
	854	struct IfcPlacement;
	855	struct IfcAxis2Placement3D;
918	856	struct IfcPresentationStyle;
919		typedef NotImplemented IfcClassificationItemRelationship; // (not currently used by Assimp)
920		struct IfcElectricHeaterType;
921		struct IfcBuildingStorey;
922		struct IfcVertex;
923		struct IfcVertexPoint;
	857	typedef NotImplemented IfcCurveStyle; // (not currently used by Assimp)
	858	struct IfcEquipmentElement;
	859	struct IfcCompositeCurveSegment;
	860	struct IfcRectangleProfileDef;
	861	typedef NotImplemented IfcPhysicalQuantity; // (not currently used by Assimp)
	862	typedef NotImplemented IfcPhysicalComplexQuantity; // (not currently used by Assimp)
	863	typedef NotImplemented IfcRelAssociatesLibrary; // (not currently used by Assimp)
	864	typedef NotImplemented IfcRelSequence; // (not currently used by Assimp)
	865	struct IfcBuildingElementProxy;
	866	struct IfcDistributionControlElementType;
924	867	struct IfcFlowInstrumentType;
925		struct IfcParameterizedProfileDef;
926		struct IfcUShapeProfileDef;
927		struct IfcRamp;
928		typedef NotImplemented IfcFillAreaStyle; // (not currently used by Assimp)
929		struct IfcCompositeCurve;
930		typedef NotImplemented IfcRelServicesBuildings; // (not currently used by Assimp)
931		struct IfcStructuralCurveMemberVarying;
932		typedef NotImplemented IfcRelReferencedInSpatialStructure; // (not currently used by Assimp)
933		struct IfcRampFlightType;
934	868	struct IfcDraughtingCallout;
935	869	struct IfcDimensionCurveDirectedCallout;
	870	struct IfcLinearDimension;
	871	struct IfcElementAssembly;
	872	typedef NotImplemented IfcDraughtingCalloutRelationship; // (not currently used by Assimp)
	873	struct IfcCsgPrimitive3D;
	874	struct IfcRightCircularCone;
	875	typedef NotImplemented IfcExternallyDefinedSurfaceStyle; // (not currently used by Assimp)
	876	struct IfcProjectOrder;
	877	typedef NotImplemented IfcPropertyConstraintRelationship; // (not currently used by Assimp)
	878	struct IfcLShapeProfileDef;
	879	struct IfcAngularDimension;
	880	typedef NotImplemented IfcTextStyleForDefinedFont; // (not currently used by Assimp)
	881	struct IfcLocalPlacement;
	882	struct IfcSweptAreaSolid;
	883	struct IfcRevolvedAreaSolid;
	884	struct IfcStructuralSurfaceConnection;
936	885	struct IfcRadiusDimension;
937		struct IfcEdgeFeature;
938		struct IfcSweptAreaSolid;
939		struct IfcExtrudedAreaSolid;
940		typedef NotImplemented IfcQuantityCount; // (not currently used by Assimp)
941		struct IfcAnnotationTextOccurrence;
942		typedef NotImplemented IfcReferencesValueDocument; // (not currently used by Assimp)
	886	struct IfcSweptDiskSolid;
	887	struct IfcHalfSpaceSolid;
	888	struct IfcPolygonalBoundedHalfSpace;
	889	struct IfcTimeSeriesSchedule;
	890	typedef NotImplemented IfcDimensionCalloutRelationship; // (not currently used by Assimp)
	891	struct IfcCooledBeamType;
	892	struct IfcProject;
	893	typedef NotImplemented IfcApprovalRelationship; // (not currently used by Assimp)
	894	struct IfcEvaporatorType;
	895	struct IfcLaborResource;
	896	typedef NotImplemented IfcStructuralLoadSingleDisplacementDistortion; // (not currently used by Assimp)
	897	struct IfcPropertyBoundedValue;
	898	struct IfcRampFlightType;
	899	struct IfcMember;
	900	typedef NotImplemented IfcStructuralLoadPlanarForce; // (not currently used by Assimp)
	901	struct IfcTubeBundleType;
	902	struct IfcValveType;
	903	typedef NotImplemented IfcExternallyDefinedTextFont; // (not currently used by Assimp)
	904	struct IfcTrimmedCurve;
	905	struct IfcRelDefines;
	906	struct IfcRelDefinesByProperties;
	907	typedef NotImplemented IfcRelAssignsToControl; // (not currently used by Assimp)
	908	struct IfcActor;
	909	struct IfcOccupant;
	910	struct IfcHumidifierType;
	911	struct IfcArbitraryOpenProfileDef;
	912	typedef NotImplemented IfcRelAssignsToProjectOrder; // (not currently used by Assimp)
	913	struct IfcPermit;
	914	struct IfcOffsetCurve3D;
	915	struct IfcLightSource;
	916	struct IfcLightSourcePositional;
	917	typedef NotImplemented IfcSurfaceTexture; // (not currently used by Assimp)
	918	typedef NotImplemented IfcBlobTexture; // (not currently used by Assimp)
	919	struct IfcCompositeProfileDef;
	920	typedef NotImplemented IfcDocumentInformation; // (not currently used by Assimp)
	921	typedef NotImplemented IfcSurfaceStyleLighting; // (not currently used by Assimp)
	922	typedef NotImplemented IfcPhysicalSimpleQuantity; // (not currently used by Assimp)
	923	typedef NotImplemented IfcQuantityArea; // (not currently used by Assimp)
	924	typedef NotImplemented IfcTimeSeries; // (not currently used by Assimp)
	925	typedef NotImplemented IfcClassificationNotation; // (not currently used by Assimp)
	926	struct IfcRamp;
	927	typedef NotImplemented IfcPreDefinedItem; // (not currently used by Assimp)
	928	typedef NotImplemented IfcPreDefinedCurveFont; // (not currently used by Assimp)
	929	typedef NotImplemented IfcPreDefinedColour; // (not currently used by Assimp)
	930	typedef NotImplemented IfcCurrencyRelationship; // (not currently used by Assimp)
	931	struct IfcFlowMovingDevice;
	932	struct IfcSpaceHeaterType;
	933	struct IfcLampType;
	934	struct IfcBuildingElementComponent;
	935	struct IfcReinforcingElement;
	936	struct IfcReinforcingBar;
	937	struct IfcElectricHeaterType;
	938	struct IfcTShapeProfileDef;
	939	typedef NotImplemented IfcConstraint; // (not currently used by Assimp)
	940	typedef NotImplemented IfcObjective; // (not currently used by Assimp)
	941	struct IfcStructuralActivity;
	942	struct IfcStructuralAction;
	943	typedef NotImplemented IfcTextureCoordinate; // (not currently used by Assimp)
	944	typedef NotImplemented IfcTextureMap; // (not currently used by Assimp)
	945	typedef NotImplemented IfcMonetaryUnit; // (not currently used by Assimp)
	946	typedef NotImplemented IfcQuantityTime; // (not currently used by Assimp)
	947	typedef NotImplemented IfcTableRow; // (not currently used by Assimp)
	948	typedef NotImplemented IfcLightDistributionData; // (not currently used by Assimp)
	949	struct IfcDuctFittingType;
	950	struct IfcCartesianTransformationOperator2D;
	951	struct IfcCartesianTransformationOperator2DnonUniform;
	952	typedef NotImplemented IfcClassificationNotationFacet; // (not currently used by Assimp)
	953	typedef NotImplemented IfcRelAssociatesApproval; // (not currently used by Assimp)
	954	typedef NotImplemented IfcDraughtingPreDefinedCurveFont; // (not currently used by Assimp)
	955	typedef NotImplemented IfcStructuralLoadSingleForce; // (not currently used by Assimp)
	956	typedef NotImplemented IfcStructuralLoadSingleForceWarping; // (not currently used by Assimp)
	957	typedef NotImplemented IfcCurveStyleFontAndScaling; // (not currently used by Assimp)
	958	struct IfcVirtualElement;
	959	struct IfcRightCircularCylinder;
	960	struct IfcOutletType;
	961	struct IfcRelDecomposes;
	962	typedef NotImplemented IfcRelNests; // (not currently used by Assimp)
	963	struct IfcCovering;
	964	typedef NotImplemented IfcExternallyDefinedSymbol; // (not currently used by Assimp)
	965	typedef NotImplemented IfcIrregularTimeSeries; // (not currently used by Assimp)
	966	struct IfcPolyline;
	967	struct IfcPath;
	968	struct IfcElementComponent;
	969	struct IfcFastener;
	970	struct IfcMappedItem;
	971	typedef NotImplemented IfcMetric; // (not currently used by Assimp)
	972	typedef NotImplemented IfcDocumentReference; // (not currently used by Assimp)
	973	typedef NotImplemented IfcSectionProperties; // (not currently used by Assimp)
	974	struct IfcRectangularPyramid;
	975	typedef NotImplemented IfcRelReferencedInSpatialStructure; // (not currently used by Assimp)
	976	struct IfcCrewResource;
	977	struct IfcNamedUnit;
	978	struct IfcContextDependentUnit;
	979	struct IfcUnitaryEquipmentType;
	980	struct IfcRoof;
	981	typedef NotImplemented IfcRelAssignsTasks; // (not currently used by Assimp)
	982	struct IfcStructuralMember;
	983	typedef NotImplemented IfcRelConnectsPorts; // (not currently used by Assimp)
	984	struct IfcStyleModel;
	985	struct IfcStyledRepresentation;
	986	struct IfcSpatialStructureElement;
	987	struct IfcBuilding;
	988	struct IfcConnectedFaceSet;
	989	struct IfcOpenShell;
	990	struct IfcFacetedBrep;
	991	typedef NotImplemented IfcLocalTime; // (not currently used by Assimp)
	992	typedef NotImplemented IfcMechanicalConcreteMaterialProperties; // (not currently used by Assimp)
	993	struct IfcConic;
	994	struct IfcCoveringType;
	995	struct IfcRoundedRectangleProfileDef;
	996	struct IfcAirTerminalType;
	997	struct IfcFlowMovingDeviceType;
	998	struct IfcCompressorType;
	999	typedef NotImplemented IfcWindowPanelProperties; // (not currently used by Assimp)
	1000	typedef NotImplemented IfcPreDefinedSymbol; // (not currently used by Assimp)
	1001	typedef NotImplemented IfcPreDefinedTerminatorSymbol; // (not currently used by Assimp)
	1002	struct IfcIShapeProfileDef;
	1003	struct IfcAsymmetricIShapeProfileDef;
	1004	struct IfcControllerType;
	1005	struct IfcRailing;
	1006	struct IfcGroup;
	1007	struct IfcAsset;
	1008	struct IfcMaterialDefinitionRepresentation;
	1009	typedef NotImplemented IfcCurveStyleFontPattern; // (not currently used by Assimp)
	1010	typedef NotImplemented IfcApprovalPropertyRelationship; // (not currently used by Assimp)
	1011	struct IfcRailingType;
	1012	struct IfcWall;
	1013	typedef NotImplemented IfcClassificationItem; // (not currently used by Assimp)
	1014	struct IfcStructuralPointConnection;
	1015	typedef NotImplemented IfcConnectionGeometry; // (not currently used by Assimp)
	1016	typedef NotImplemented IfcConnectionPointGeometry; // (not currently used by Assimp)
	1017	typedef NotImplemented IfcTimeSeriesValue; // (not currently used by Assimp)
	1018	struct IfcPropertyListValue;
	1019	struct IfcFurnitureStandard;
	1020	typedef NotImplemented IfcRelSchedulesCostItems; // (not currently used by Assimp)
	1021	struct IfcElectricGeneratorType;
	1022	struct IfcDoor;
	1023	struct IfcStyledItem;
	1024	struct IfcAnnotationOccurrence;
	1025	struct IfcAnnotationSymbolOccurrence;
	1026	struct IfcArbitraryClosedProfileDef;
	1027	struct IfcArbitraryProfileDefWithVoids;
	1028	struct IfcLine;
	1029	typedef NotImplemented IfcMaterialLayerSet; // (not currently used by Assimp)
	1030	struct IfcFlowSegmentType;
	1031	struct IfcAirTerminalBoxType;
	1032	typedef NotImplemented IfcRelConnectsStructuralMember; // (not currently used by Assimp)
	1033	struct IfcPropertySingleValue;
	1034	struct IfcAlarmType;
	1035	struct IfcEllipseProfileDef;
943	1036	struct IfcStair;
944		typedef NotImplemented IfcSymbolStyle; // (not currently used by Assimp)
945		struct IfcFillAreaStyleTileSymbolWithStyle;
946		struct IfcAnnotationSymbolOccurrence;
947		struct IfcTerminatorSymbol;
948		struct IfcDimensionCurveTerminator;
949		struct IfcRectangleProfileDef;
950		struct IfcRectangleHollowProfileDef;
951		typedef NotImplemented IfcRelAssociatesLibrary; // (not currently used by Assimp)
952		struct IfcLocalPlacement;
953		typedef NotImplemented IfcOpticalMaterialProperties; // (not currently used by Assimp)
954		typedef NotImplemented IfcServiceLifeFactor; // (not currently used by Assimp)
955		typedef NotImplemented IfcRelAssignsTasks; // (not currently used by Assimp)
956		struct IfcTask;
957		struct IfcAnnotationFillAreaOccurrence;
958		struct IfcFace;
959		struct IfcFlowSegmentType;
960		struct IfcDuctSegmentType;
961		typedef NotImplemented IfcPropertyEnumeration; // (not currently used by Assimp)
962		struct IfcConstructionResource;
963		struct IfcConstructionEquipmentResource;
964		struct IfcSanitaryTerminalType;
965		typedef NotImplemented IfcPreDefinedDimensionSymbol; // (not currently used by Assimp)
966		typedef NotImplemented IfcOrganization; // (not currently used by Assimp)
967		struct IfcCircleProfileDef;
968		struct IfcStructuralReaction;
969		struct IfcStructuralPointReaction;
970		struct IfcRailing;
971		struct IfcTextLiteral;
972		struct IfcCartesianTransformationOperator;
973		typedef NotImplemented IfcCostValue; // (not currently used by Assimp)
974		typedef NotImplemented IfcTextStyle; // (not currently used by Assimp)
975		struct IfcLinearDimension;
976		struct IfcDamperType;
977		struct IfcSIUnit;
978		typedef NotImplemented IfcSurfaceStyleLighting; // (not currently used by Assimp)
979		struct IfcMeasureWithUnit;
980		typedef NotImplemented IfcMaterialLayerSet; // (not currently used by Assimp)
981		struct IfcDistributionElement;
982		struct IfcDistributionControlElement;
983		struct IfcTransformerType;
984		struct IfcLaborResource;
985		struct IfcDerivedProfileDef;
986		typedef NotImplemented IfcRelConnectsStructuralMember; // (not currently used by Assimp)
987		typedef NotImplemented IfcRelConnectsWithEccentricity; // (not currently used by Assimp)
988		struct IfcFurnitureStandard;
989		struct IfcStairFlightType;
990		struct IfcWorkControl;
991		struct IfcWorkPlan;
992		typedef NotImplemented IfcRelDefines; // (not currently used by Assimp)
993		typedef NotImplemented IfcRelDefinesByProperties; // (not currently used by Assimp)
994		struct IfcCondition;
995		typedef NotImplemented IfcGridAxis; // (not currently used by Assimp)
996		struct IfcRelVoidsElement;
997		struct IfcWindow;
998		typedef NotImplemented IfcRelFlowControlElements; // (not currently used by Assimp)
999		typedef NotImplemented IfcRelConnectsPortToElement; // (not currently used by Assimp)
1000		struct IfcProtectiveDeviceType;
1001		struct IfcJunctionBoxType;
1002		struct IfcStructuralAnalysisModel;
1003		struct IfcAxis2Placement2D;
1004		struct IfcSpaceType;
1005		struct IfcEllipseProfileDef;
1006		struct IfcDistributionFlowElement;
1007		struct IfcFlowMovingDevice;
1008		struct IfcSurfaceStyleWithTextures;
1009		struct IfcGeometricSet;
1010		typedef NotImplemented IfcMechanicalMaterialProperties; // (not currently used by Assimp)
1011		typedef NotImplemented IfcMechanicalConcreteMaterialProperties; // (not currently used by Assimp)
1012		typedef NotImplemented IfcRibPlateProfileProperties; // (not currently used by Assimp)
1013		typedef NotImplemented IfcDocumentInformationRelationship; // (not currently used by Assimp)
1014		struct IfcProjectOrder;
1015		struct IfcBSplineCurve;
1016		struct IfcBezierCurve;
1017		struct IfcStructuralPointConnection;
1018		struct IfcFlowController;
1019		struct IfcElectricDistributionPoint;
1020		struct IfcSite;
1021		struct IfcOffsetCurve3D;
1022		typedef NotImplemented IfcPropertySet; // (not currently used by Assimp)
1023		typedef NotImplemented IfcConnectionSurfaceGeometry; // (not currently used by Assimp)
1024		struct IfcVirtualElement;
1025		struct IfcConstructionProductResource;
1026		typedef NotImplemented IfcWaterProperties; // (not currently used by Assimp)
1027		struct IfcSurfaceCurveSweptAreaSolid;
1028		typedef NotImplemented IfcPermeableCoveringProperties; // (not currently used by Assimp)
1029		struct IfcCartesianTransformationOperator3D;
1030		struct IfcCartesianTransformationOperator3DnonUniform;
1031		struct IfcCrewResource;
1032		struct IfcStructuralSurfaceMember;
1033		struct Ifc2DCompositeCurve;
1034		struct IfcRepresentationContext;
1035		struct IfcGeometricRepresentationContext;
1036		struct IfcFlowTreatmentDevice;
1037		typedef NotImplemented IfcTextStyleForDefinedFont; // (not currently used by Assimp)
1038		struct IfcRightCircularCylinder;
1039		struct IfcWasteTerminalType;
1040		typedef NotImplemented IfcSpaceThermalLoadProperties; // (not currently used by Assimp)
1041		typedef NotImplemented IfcConstraintRelationship; // (not currently used by Assimp)
1042		struct IfcBuildingElementComponent;
1043		struct IfcBuildingElementPart;
1044		struct IfcWall;
1045		struct IfcWallStandardCase;
1046		typedef NotImplemented IfcApprovalActorRelationship; // (not currently used by Assimp)
1047		struct IfcPath;
1048		struct IfcDefinedSymbol;
1049		struct IfcStructuralSurfaceMemberVarying;
1050		struct IfcPoint;
1051		struct IfcSurfaceOfRevolution;
1052		struct IfcFlowTerminal;
1053		struct IfcFurnishingElement;
1054		typedef NotImplemented IfcCurveStyleFont; // (not currently used by Assimp)
1055		struct IfcSurfaceStyleShading;
1056		struct IfcSurfaceStyleRendering;
1057		typedef NotImplemented IfcCoordinatedUniversalTimeOffset; // (not currently used by Assimp)
1058		typedef NotImplemented IfcStructuralLoadSingleDisplacement; // (not currently used by Assimp)
1059		struct IfcCircleHollowProfileDef;
1060		struct IfcFlowMovingDeviceType;
1061		struct IfcFanType;
1062		struct IfcStructuralPlanarActionVarying;
1063		struct IfcProductRepresentation;
1064		typedef NotImplemented IfcRelDefinesByType; // (not currently used by Assimp)
1065	1037	typedef NotImplemented IfcPreDefinedTextFont; // (not currently used by Assimp)
1066	1038	typedef NotImplemented IfcTextStyleFontModel; // (not currently used by Assimp)
1067		struct IfcStackTerminalType;
1068		typedef NotImplemented IfcApprovalPropertyRelationship; // (not currently used by Assimp)
1069		typedef NotImplemented IfcExternallyDefinedSymbol; // (not currently used by Assimp)
1070		struct IfcReinforcingElement;
1071		struct IfcReinforcingMesh;
1072		struct IfcOrderAction;
1073		typedef NotImplemented IfcRelCoversBldgElements; // (not currently used by Assimp)
1074		struct IfcLightSource;
1075		struct IfcLightSourceDirectional;
1076		struct IfcLoop;
1077		struct IfcVertexLoop;
1078		struct IfcChamferEdgeFeature;
1079		typedef NotImplemented IfcWindowPanelProperties; // (not currently used by Assimp)
1080		typedef NotImplemented IfcClassification; // (not currently used by Assimp)
	1039	struct IfcSurfaceStyleShading;
	1040	struct IfcPumpType;
	1041	struct IfcDefinedSymbol;
	1042	typedef NotImplemented IfcClassificationItemRelationship; // (not currently used by Assimp)
	1043	typedef NotImplemented IfcGeneralMaterialProperties; // (not currently used by Assimp)
1081	1044	struct IfcElementComponentType;
1082	1045	struct IfcFastenerType;
1083	1046	struct IfcMechanicalFastenerType;
	1047	typedef NotImplemented IfcPermeableCoveringProperties; // (not currently used by Assimp)
	1048	struct IfcFlowFitting;
	1049	typedef NotImplemented IfcApproval; // (not currently used by Assimp)
	1050	typedef NotImplemented IfcShapeAspect; // (not currently used by Assimp)
	1051	typedef NotImplemented IfcConstraintClassificationRelationship; // (not currently used by Assimp)
	1052	struct IfcLightSourceDirectional;
	1053	struct IfcSurfaceStyle;
	1054	typedef NotImplemented IfcRelConnectsStructuralActivity; // (not currently used by Assimp)
	1055	typedef NotImplemented IfcRelAssociatesProfileProperties; // (not currently used by Assimp)
	1056	struct IfcAnnotationSurface;
	1057	typedef NotImplemented IfcFuelProperties; // (not currently used by Assimp)
	1058	struct IfcFlowController;
	1059	typedef NotImplemented IfcFailureConnectionCondition; // (not currently used by Assimp)
	1060	struct IfcBuildingStorey;
	1061	struct IfcWorkControl;
	1062	struct IfcWorkSchedule;
	1063	typedef NotImplemented IfcTable; // (not currently used by Assimp)
	1064	struct IfcDuctSegmentType;
	1065	typedef NotImplemented IfcStructuralSteelProfileProperties; // (not currently used by Assimp)
	1066	typedef NotImplemented IfcDraughtingPreDefinedTextFont; // (not currently used by Assimp)
	1067	struct IfcFace;
	1068	struct IfcStructuralSurfaceMember;
	1069	struct IfcStructuralSurfaceMemberVarying;
	1070	struct IfcFaceSurface;
	1071	typedef NotImplemented IfcClassification; // (not currently used by Assimp)
	1072	typedef NotImplemented IfcMaterialList; // (not currently used by Assimp)
	1073	struct IfcCostSchedule;
	1074	typedef NotImplemented IfcCoordinatedUniversalTimeOffset; // (not currently used by Assimp)
	1075	struct IfcPlanarExtent;
	1076	struct IfcPlanarBox;
	1077	typedef NotImplemented IfcFillAreaStyle; // (not currently used by Assimp)
	1078	typedef NotImplemented IfcSectionReinforcementProperties; // (not currently used by Assimp)
	1079	struct IfcColourSpecification;
	1080	struct IfcVector;
	1081	struct IfcBeam;
	1082	struct IfcColourRgb;
	1083	struct IfcStructuralPlanarAction;
	1084	struct IfcStructuralPlanarActionVarying;
	1085	struct IfcSite;
	1086	struct IfcDiscreteAccessoryType;
	1087	struct IfcVibrationIsolatorType;
	1088	struct IfcEvaporativeCoolerType;
	1089	struct IfcDistributionChamberElementType;
	1090	struct IfcFeatureElementAddition;
	1091	typedef NotImplemented IfcRelAssignsToResource; // (not currently used by Assimp)
	1092	struct IfcStructuredDimensionCallout;
	1093	struct IfcCoolingTowerType;
	1094	struct IfcCenterLineProfileDef;
	1095	typedef NotImplemented IfcTextureVertex; // (not currently used by Assimp)
	1096	typedef NotImplemented IfcOrganization; // (not currently used by Assimp)
	1097	struct IfcWindowStyle;
	1098	struct IfcLightSourceGoniometric;
	1099	typedef NotImplemented IfcRibPlateProfileProperties; // (not currently used by Assimp)
	1100	struct IfcTransformerType;
	1101	struct IfcMemberType;
	1102	struct IfcSurfaceOfLinearExtrusion;
	1103	struct IfcMotorConnectionType;
	1104	struct IfcFlowTreatmentDeviceType;
	1105	struct IfcDuctSilencerType;
	1106	typedef NotImplemented IfcWindowLiningProperties; // (not currently used by Assimp)
	1107	struct IfcFurnishingElementType;
	1108	struct IfcSystemFurnitureElementType;
	1109	typedef NotImplemented IfcConnectionPointEccentricity; // (not currently used by Assimp)
	1110	struct IfcWasteTerminalType;
	1111	struct IfcBSplineCurve;
	1112	struct IfcBezierCurve;
	1113	typedef NotImplemented IfcDocumentInformationRelationship; // (not currently used by Assimp)
	1114	struct IfcActuatorType;
	1115	struct IfcDistributionControlElement;
	1116	struct IfcAnnotation;
	1117	typedef NotImplemented IfcRelAssociatesDocument; // (not currently used by Assimp)
	1118	typedef NotImplemented IfcDoorLiningProperties; // (not currently used by Assimp)
	1119	struct IfcShellBasedSurfaceModel;
	1120	struct IfcActionRequest;
	1121	struct IfcExtrudedAreaSolid;
	1122	struct IfcSystem;
	1123	struct IfcFillAreaStyleHatching;
	1124	struct IfcRelVoidsElement;
	1125	typedef NotImplemented IfcRelConnectsPathElements; // (not currently used by Assimp)
	1126	typedef NotImplemented IfcRelSpaceBoundary; // (not currently used by Assimp)
	1127	struct IfcSurfaceCurveSweptAreaSolid;
	1128	struct IfcCartesianTransformationOperator3DnonUniform;
	1129	typedef NotImplemented IfcRelInteractionRequirements; // (not currently used by Assimp)
	1130	struct IfcCurtainWallType;
	1131	typedef NotImplemented IfcQuantityLength; // (not currently used by Assimp)
	1132	struct IfcEquipmentStandard;
	1133	struct IfcFlowStorageDeviceType;
	1134	typedef NotImplemented IfcVirtualGridIntersection; // (not currently used by Assimp)
	1135	struct IfcDiameterDimension;
	1136	struct IfcSwitchingDeviceType;
	1137	typedef NotImplemented IfcAddress; // (not currently used by Assimp)
	1138	typedef NotImplemented IfcTelecomAddress; // (not currently used by Assimp)
	1139	struct IfcWindow;
	1140	typedef NotImplemented IfcMechanicalSteelMaterialProperties; // (not currently used by Assimp)
	1141	struct IfcFlowTreatmentDevice;
	1142	typedef NotImplemented IfcRelServicesBuildings; // (not currently used by Assimp)
	1143	struct IfcChillerType;
	1144	typedef NotImplemented IfcRelAssignsToProduct; // (not currently used by Assimp)
	1145	struct IfcRectangleHollowProfileDef;
	1146	typedef NotImplemented IfcEnergyProperties; // (not currently used by Assimp)
	1147	struct IfcBoxedHalfSpace;
	1148	struct IfcAxis2Placement2D;
	1149	struct IfcSpaceProgram;
	1150	struct IfcPoint;
	1151	struct IfcCartesianPoint;
	1152	struct IfcBoundedSurface;
	1153	struct IfcLoop;
	1154	struct IfcPolyLoop;
	1155	typedef NotImplemented IfcPreDefinedPointMarkerSymbol; // (not currently used by Assimp)
	1156	struct IfcTerminatorSymbol;
	1157	struct IfcDimensionCurveTerminator;
	1158	typedef NotImplemented IfcRelProjectsElement; // (not currently used by Assimp)
	1159	struct IfcTrapeziumProfileDef;
	1160	struct IfcRepresentationContext;
	1161	struct IfcGeometricRepresentationContext;
	1162	typedef NotImplemented IfcTextStyleWithBoxCharacteristics; // (not currently used by Assimp)
	1163	struct IfcCurveBoundedPlane;
	1164	typedef NotImplemented IfcQuantityCount; // (not currently used by Assimp)
	1165	typedef NotImplemented IfcTimeSeriesReferenceRelationship; // (not currently used by Assimp)
	1166	typedef NotImplemented IfcStructuralLoadTemperature; // (not currently used by Assimp)
	1167	struct IfcSIUnit;
	1168	struct IfcStructuralReaction;
	1169	struct IfcStructuralPointReaction;
	1170	struct IfcAxis1Placement;
	1171	typedef NotImplemented IfcReinforcementDefinitionProperties; // (not currently used by Assimp)
	1172	struct IfcElectricApplianceType;
	1173	struct IfcSensorType;
	1174	struct IfcFurnishingElement;
	1175	struct IfcProtectiveDeviceType;
	1176	struct IfcZShapeProfileDef;
1084	1177	struct IfcScheduleTimeControl;
1085		struct IfcSurfaceStyle;
1086		typedef NotImplemented IfcReinforcementBarProperties; // (not currently used by Assimp)
1087		struct IfcOpenShell;
1088		typedef NotImplemented IfcLibraryReference; // (not currently used by Assimp)
1089		struct IfcSubContractResource;
1090		typedef NotImplemented IfcTimeSeriesReferenceRelationship; // (not currently used by Assimp)
1091		struct IfcSweptDiskSolid;
1092		struct IfcCompositeProfileDef;
	1178	struct IfcRepresentationMap;
	1179	struct IfcClosedShell;
	1180	struct IfcBuildingElementPart;
	1181	typedef NotImplemented IfcDraughtingPreDefinedColour; // (not currently used by Assimp)
	1182	typedef NotImplemented IfcPostalAddress; // (not currently used by Assimp)
	1183	struct IfcBlock;
	1184	struct IfcLightFixtureType;
	1185	struct IfcOpeningElement;
	1186	struct IfcLightSourceSpot;
	1187	struct IfcTendonAnchor;
	1188	typedef NotImplemented IfcSurfaceStyleRefraction; // (not currently used by Assimp)
	1189	struct IfcElectricFlowStorageDeviceType;
	1190	typedef NotImplemented IfcFluidFlowProperties; // (not currently used by Assimp)
	1191	struct IfcSphere;
	1192	typedef NotImplemented IfcRelAssociatesAppliedValue; // (not currently used by Assimp)
	1193	struct IfcDamperType;
	1194	struct IfcProjectOrderRecord;
	1195	typedef NotImplemented IfcDimensionalExponents; // (not currently used by Assimp)
	1196	typedef NotImplemented IfcRelDefinesByType; // (not currently used by Assimp)
	1197	struct IfcDistributionChamberElement;
	1198	struct IfcMechanicalFastener;
	1199	typedef NotImplemented IfcQuantityVolume; // (not currently used by Assimp)
	1200	struct IfcRectangularTrimmedSurface;
	1201	typedef NotImplemented IfcDateAndTime; // (not currently used by Assimp)
	1202	struct IfcZone;
	1203	struct IfcFanType;
	1204	struct IfcGeometricSet;
	1205	struct IfcFillAreaStyleTiles;
	1206	typedef NotImplemented IfcPixelTexture; // (not currently used by Assimp)
	1207	struct IfcCableSegmentType;
	1208	struct IfcRelOverridesProperties;
	1209	struct IfcMeasureWithUnit;
	1210	struct IfcSlabType;
	1211	struct IfcServiceLife;
	1212	struct IfcFurnitureType;
	1213	struct IfcCostItem;
	1214	struct IfcReinforcingMesh;
	1215	typedef NotImplemented IfcExtendedMaterialProperties; // (not currently used by Assimp)
	1216	typedef NotImplemented IfcActorRole; // (not currently used by Assimp)
	1217	struct IfcFacetedBrepWithVoids;
	1218	typedef NotImplemented IfcConstraintAggregationRelationship; // (not currently used by Assimp)
	1219	struct IfcGasTerminalType;
	1220	typedef NotImplemented IfcRelConnectsWithEccentricity; // (not currently used by Assimp)
	1221	struct IfcPile;
	1222	struct IfcFillAreaStyleTileSymbolWithStyle;
1093	1223	typedef NotImplemented IfcElectricalBaseProperties; // (not currently used by Assimp)
1094		typedef NotImplemented IfcPreDefinedPointMarkerSymbol; // (not currently used by Assimp)
1095		struct IfcTankType;
	1224	struct IfcConstructionMaterialResource;
	1225	struct IfcAnnotationCurveOccurrence;
	1226	struct IfcDimensionCurve;
	1227	struct IfcGeometricCurveSet;
	1228	struct IfcRelAggregates;
	1229	struct IfcFaceBasedSurfaceModel;
	1230	struct IfcEnergyConversionDevice;
	1231	struct IfcRampFlight;
	1232	typedef NotImplemented IfcPropertyEnumeration; // (not currently used by Assimp)
	1233	struct IfcVertexLoop;
	1234	struct IfcPlate;
	1235	struct IfcUShapeProfileDef;
	1236	typedef NotImplemented IfcHygroscopicMaterialProperties; // (not currently used by Assimp)
	1237	struct IfcFaceBound;
	1238	struct IfcFaceOuterBound;
	1239	struct IfcOneDirectionRepeatFactor;
	1240	struct IfcBoilerType;
	1241	struct IfcConstructionEquipmentResource;
	1242	struct IfcComplexProperty;
	1243	struct IfcFooting;
	1244	typedef NotImplemented IfcOpticalMaterialProperties; // (not currently used by Assimp)
	1245	struct IfcConstructionProductResource;
	1246	typedef NotImplemented IfcBoundaryEdgeCondition; // (not currently used by Assimp)
	1247	struct IfcDerivedProfileDef;
	1248	struct IfcPropertyTableValue;
	1249	typedef NotImplemented IfcRelAssignsToGroup; // (not currently used by Assimp)
	1250	struct IfcFlowMeterType;
	1251	struct IfcDoorStyle;
	1252	typedef NotImplemented IfcRelConnectsPortToElement; // (not currently used by Assimp)
	1253	typedef NotImplemented IfcRelAssociatesClassification; // (not currently used by Assimp)
	1254	struct IfcUnitAssignment;
	1255	struct IfcFlowTerminal;
	1256	struct IfcCraneRailFShapeProfileDef;
	1257	struct IfcFlowSegment;
	1258	struct IfcElementQuantity;
1096	1259	typedef NotImplemented IfcBoundaryNodeCondition; // (not currently used by Assimp)
1097	1260	typedef NotImplemented IfcBoundaryNodeConditionWarping; // (not currently used by Assimp)
1098		typedef NotImplemented IfcRelAssignsToGroup; // (not currently used by Assimp)
1099		typedef NotImplemented IfcPresentationLayerAssignment; // (not currently used by Assimp)
1100		struct IfcSphere;
1101		struct IfcPolyLoop;
1102		struct IfcCableCarrierFittingType;
1103		struct IfcHumidifierType;
1104		typedef NotImplemented IfcPropertyListValue; // (not currently used by Assimp)
1105		typedef NotImplemented IfcPropertyConstraintRelationship; // (not currently used by Assimp)
1106		struct IfcPerformanceHistory;
1107		struct IfcShapeModel;
1108		struct IfcTopologyRepresentation;
1109		struct IfcBuilding;
1110		struct IfcRoundedRectangleProfileDef;
	1261	struct IfcCurtainWall;
	1262	struct IfcDiscreteAccessory;
	1263	struct IfcGrid;
	1264	struct IfcSanitaryTerminalType;
	1265	typedef NotImplemented IfcSoundProperties; // (not currently used by Assimp)
	1266	struct IfcSubedge;
	1267	typedef NotImplemented IfcTextStyleTextModel; // (not currently used by Assimp)
	1268	struct IfcFilterType;
	1269	typedef NotImplemented IfcSymbolStyle; // (not currently used by Assimp)
	1270	struct IfcTendon;
	1271	typedef NotImplemented IfcDimensionPair; // (not currently used by Assimp)
	1272	struct IfcStructuralLoadGroup;
	1273	struct IfcPresentationStyleAssignment;
	1274	typedef NotImplemented IfcRegularTimeSeries; // (not currently used by Assimp)
	1275	struct IfcStructuralCurveMember;
	1276	struct IfcLightSourceAmbient;
	1277	struct IfcCondition;
	1278	struct IfcPort;
	1279	struct IfcSpace;
	1280	struct IfcHeatExchangerType;
	1281	struct IfcTankType;
	1282	struct IfcInventory;
	1283	typedef NotImplemented IfcTextStyle; // (not currently used by Assimp)
	1284	typedef NotImplemented IfcAppliedValueRelationship; // (not currently used by Assimp)
	1285	typedef NotImplemented IfcSoundValue; // (not currently used by Assimp)
	1286	struct IfcTransportElementType;
	1287	struct IfcAirToAirHeatRecoveryType;
1111	1288	struct IfcStairFlight;
1112		typedef NotImplemented IfcSurfaceStyleRefraction; // (not currently used by Assimp)
1113		typedef NotImplemented IfcRelInteractionRequirements; // (not currently used by Assimp)
1114		typedef NotImplemented IfcConstraint; // (not currently used by Assimp)
1115		typedef NotImplemented IfcObjective; // (not currently used by Assimp)
	1289	struct IfcElectricalElement;
	1290	typedef NotImplemented IfcLightIntensityDistribution; // (not currently used by Assimp)
	1291	typedef NotImplemented IfcClassificationReference; // (not currently used by Assimp)
	1292	struct IfcSurfaceStyleWithTextures;
	1293	struct IfcBoundingBox;
	1294	typedef NotImplemented IfcApplication; // (not currently used by Assimp)
	1295	struct IfcWallType;
	1296	struct IfcMove;
	1297	struct IfcCircle;
	1298	struct IfcOffsetCurve2D;
	1299	typedef NotImplemented IfcMaterialLayerSetUsage; // (not currently used by Assimp)
	1300	struct IfcPointOnCurve;
	1301	struct IfcStructuralResultGroup;
	1302	struct IfcSectionedSpine;
	1303	struct IfcSlab;
1116	1304	typedef NotImplemented IfcConnectionPortGeometry; // (not currently used by Assimp)
1117		struct IfcDistributionChamberElement;
	1305	typedef NotImplemented IfcQuantityWeight; // (not currently used by Assimp)
	1306	typedef NotImplemented IfcRelAssociatesMaterial; // (not currently used by Assimp)
	1307	struct IfcVertex;
	1308	struct IfcVertexPoint;
	1309	typedef NotImplemented IfcReferencesValueDocument; // (not currently used by Assimp)
1118	1310	typedef NotImplemented IfcPersonAndOrganization; // (not currently used by Assimp)
1119		struct IfcShapeRepresentation;
1120		struct IfcRampFlight;
1121		struct IfcBeamType;
1122		struct IfcRelDecomposes;
1123		struct IfcRoof;
1124		struct IfcFooting;
1125		typedef NotImplemented IfcRelCoversSpaces; // (not currently used by Assimp)
1126		struct IfcLightSourceAmbient;
1127		typedef NotImplemented IfcTimeSeriesValue; // (not currently used by Assimp)
1128		struct IfcWindowStyle;
1129		typedef NotImplemented IfcPropertyReferenceValue; // (not currently used by Assimp)
1130		typedef NotImplemented IfcApproval; // (not currently used by Assimp)
1131		typedef NotImplemented IfcRelConnectsStructuralElement; // (not currently used by Assimp)
1132		struct IfcBuildingElementProxyType;
1133		typedef NotImplemented IfcRelAssociatesProfileProperties; // (not currently used by Assimp)
1134		struct IfcAxis2Placement3D;
1135		typedef NotImplemented IfcRelConnectsPorts; // (not currently used by Assimp)
1136		struct IfcEdgeCurve;
1137		struct IfcClosedShell;
1138		struct IfcTendonAnchor;
1139		struct IfcCondenserType;
1140		typedef NotImplemented IfcQuantityTime; // (not currently used by Assimp)
1141		typedef NotImplemented IfcSurfaceTexture; // (not currently used by Assimp)
1142		typedef NotImplemented IfcPixelTexture; // (not currently used by Assimp)
1143		typedef NotImplemented IfcStructuralConnectionCondition; // (not currently used by Assimp)
1144		typedef NotImplemented IfcFailureConnectionCondition; // (not currently used by Assimp)
1145		typedef NotImplemented IfcDocumentReference; // (not currently used by Assimp)
1146		typedef NotImplemented IfcMechanicalSteelMaterialProperties; // (not currently used by Assimp)
1147		struct IfcPipeSegmentType;
1148		struct IfcPointOnSurface;
1149		typedef NotImplemented IfcTable; // (not currently used by Assimp)
1150		typedef NotImplemented IfcLightDistributionData; // (not currently used by Assimp)
1151		typedef NotImplemented IfcPropertyTableValue; // (not currently used by Assimp)
1152		typedef NotImplemented IfcPresentationLayerWithStyle; // (not currently used by Assimp)
1153		struct IfcAsset;
1154		struct IfcLightSourcePositional;
1155		typedef NotImplemented IfcLibraryInformation; // (not currently used by Assimp)
1156		typedef NotImplemented IfcTextStyleTextModel; // (not currently used by Assimp)
1157		struct IfcProjectionCurve;
1158		struct IfcFillAreaStyleTiles;
1159		struct IfcRelFillsElement;
1160		struct IfcElectricMotorType;
1161		struct IfcTendon;
1162		struct IfcDistributionChamberElementType;
1163		struct IfcMemberType;
	1311	typedef NotImplemented IfcRelFlowControlElements; // (not currently used by Assimp)
	1312	typedef NotImplemented IfcRelAssignsToProcess; // (not currently used by Assimp)
1164	1313	struct IfcStructuralLinearAction;
1165	1314	struct IfcStructuralLinearActionVarying;
	1315	struct IfcBuildingElementProxyType;
	1316	struct IfcProjectionElement;
	1317	typedef NotImplemented IfcDerivedUnit; // (not currently used by Assimp)
	1318	typedef NotImplemented IfcApprovalActorRelationship; // (not currently used by Assimp)
	1319	struct IfcConversionBasedUnit;
	1320	typedef NotImplemented IfcMaterial; // (not currently used by Assimp)
	1321	struct IfcGeometricRepresentationSubContext;
	1322	struct IfcAnnotationSurfaceOccurrence;
	1323	typedef NotImplemented IfcPreDefinedDimensionSymbol; // (not currently used by Assimp)
	1324	struct IfcRoundedEdgeFeature;
	1325	typedef NotImplemented IfcRelCoversBldgElements; // (not currently used by Assimp)
	1326	struct IfcElectricDistributionPoint;
	1327	struct IfcCableCarrierSegmentType;
	1328	typedef NotImplemented IfcStructuralLoadLinearForce; // (not currently used by Assimp)
	1329	typedef NotImplemented IfcGridAxis; // (not currently used by Assimp)
	1330	typedef NotImplemented IfcIrregularTimeSeriesValue; // (not currently used by Assimp)
	1331	struct IfcWallStandardCase;
	1332	typedef NotImplemented IfcRelOccupiesSpaces; // (not currently used by Assimp)
	1333	typedef NotImplemented IfcDerivedUnitElement; // (not currently used by Assimp)
	1334	struct IfcCsgSolid;
	1335	struct IfcBeamType;
	1336	struct IfcAnnotationFillArea;
	1337	typedef NotImplemented IfcRelaxation; // (not currently used by Assimp)
	1338	struct IfcStructuralCurveMemberVarying;
	1339	struct IfcPointOnSurface;
	1340	typedef NotImplemented IfcPropertyDependencyRelationship; // (not currently used by Assimp)
	1341	typedef NotImplemented IfcVertexBasedTextureMap; // (not currently used by Assimp)
	1342	struct IfcOrderAction;
	1343	typedef NotImplemented IfcLibraryReference; // (not currently used by Assimp)
	1344	struct IfcEdgeLoop;
	1345	struct IfcAnnotationFillAreaOccurrence;
	1346	typedef NotImplemented IfcRelConnectsStructuralElement; // (not currently used by Assimp)
	1347	struct IfcWorkPlan;
	1348	struct IfcEllipse;
1166	1349	struct IfcProductDefinitionShape;
1167		struct IfcFastener;
1168		struct IfcMechanicalFastener;
1169		typedef NotImplemented IfcFuelProperties; // (not currently used by Assimp)
1170		struct IfcEvaporatorType;
1171		typedef NotImplemented IfcMaterialLayerSetUsage; // (not currently used by Assimp)
1172		struct IfcDiscreteAccessoryType;
1173		struct IfcStructuralCurveConnection;
1174		struct IfcProjectionElement;
	1350	struct IfcProjectionCurve;
	1351	struct IfcElectricalCircuit;
	1352	struct IfcRationalBezierCurve;
	1353	struct IfcStructuralPointAction;
	1354	typedef NotImplemented IfcServiceLifeFactor; // (not currently used by Assimp)
	1355	typedef NotImplemented IfcThermalMaterialProperties; // (not currently used by Assimp)
	1356	typedef NotImplemented IfcTextureCoordinateGenerator; // (not currently used by Assimp)
	1357	struct IfcPipeSegmentType;
	1358	struct IfcTwoDirectionRepeatFactor;
	1359	struct IfcShapeRepresentation;
	1360	struct IfcPropertySet;
	1361	struct IfcSurfaceStyleRendering;
	1362	struct IfcDistributionPort;
1175	1363	typedef NotImplemented IfcImageTexture; // (not currently used by Assimp)
1176		struct IfcCoveringType;
1177		typedef NotImplemented IfcRelAssociatesAppliedValue; // (not currently used by Assimp)
1178		struct IfcPumpType;
1179		struct IfcPile;
1180		struct IfcUnitAssignment;
1181		struct IfcBoundingBox;
1182		struct IfcShellBasedSurfaceModel;
1183		struct IfcFacetedBrep;
1184		struct IfcTextLiteralWithExtent;
1185		typedef NotImplemented IfcApplication; // (not currently used by Assimp)
1186		typedef NotImplemented IfcExtendedMaterialProperties; // (not currently used by Assimp)
1187		struct IfcElectricApplianceType;
1188		typedef NotImplemented IfcRelOccupiesSpaces; // (not currently used by Assimp)
1189		struct IfcTrapeziumProfileDef;
1190		typedef NotImplemented IfcQuantityWeight; // (not currently used by Assimp)
1191		struct IfcRelContainedInSpatialStructure;
1192		struct IfcEdgeLoop;
1193		struct IfcProject;
1194		struct IfcCartesianPoint;
1195		typedef NotImplemented IfcMaterial; // (not currently used by Assimp)
1196		struct IfcCurveBoundedPlane;
1197		struct IfcWallType;
1198		struct IfcFillAreaStyleHatching;
1199		struct IfcEquipmentStandard;
1200		typedef NotImplemented IfcHygroscopicMaterialProperties; // (not currently used by Assimp)
1201		typedef NotImplemented IfcDoorPanelProperties; // (not currently used by Assimp)
1202		struct IfcDiameterDimension;
1203		struct IfcStructuralLoadGroup;
1204		typedef NotImplemented IfcTelecomAddress; // (not currently used by Assimp)
1205		struct IfcConstructionMaterialResource;
1206		typedef NotImplemented IfcBlobTexture; // (not currently used by Assimp)
1207		typedef NotImplemented IfcIrregularTimeSeriesValue; // (not currently used by Assimp)
1208		struct IfcRelAggregates;
1209		struct IfcBoilerType;
1210		typedef NotImplemented IfcRelProjectsElement; // (not currently used by Assimp)
1211		struct IfcColourSpecification;
1212		struct IfcColourRgb;
1213		typedef NotImplemented IfcRelConnectsStructuralActivity; // (not currently used by Assimp)
1214		struct IfcDoorStyle;
1215		typedef NotImplemented IfcStructuralLoadSingleDisplacementDistortion; // (not currently used by Assimp)
1216		typedef NotImplemented IfcRelAssignsToProcess; // (not currently used by Assimp)
1217		struct IfcDuctSilencerType;
1218		struct IfcLightSourceGoniometric;
1219		struct IfcActuatorType;
1220		struct IfcSensorType;
1221		struct IfcAirTerminalBoxType;
1222		struct IfcAnnotationSurfaceOccurrence;
1223		struct IfcZShapeProfileDef;
1224		typedef NotImplemented IfcClassificationNotation; // (not currently used by Assimp)
1225		struct IfcRationalBezierCurve;
1226		struct IfcCartesianTransformationOperator2D;
1227		struct IfcCartesianTransformationOperator2DnonUniform;
1228		struct IfcMove;
1229		typedef NotImplemented IfcBoundaryEdgeCondition; // (not currently used by Assimp)
1230		typedef NotImplemented IfcDoorLiningProperties; // (not currently used by Assimp)
1231		struct IfcCableCarrierSegmentType;
1232		typedef NotImplemented IfcPostalAddress; // (not currently used by Assimp)
1233		typedef NotImplemented IfcRelConnectsPathElements; // (not currently used by Assimp)
1234		struct IfcElectricalElement;
1235		typedef NotImplemented IfcOwnerHistory; // (not currently used by Assimp)
1236		typedef NotImplemented IfcStructuralLoadTemperature; // (not currently used by Assimp)
1237		typedef NotImplemented IfcTextStyleWithBoxCharacteristics; // (not currently used by Assimp)
1238		struct IfcChillerType;
1239		typedef NotImplemented IfcRelSchedulesCostItems; // (not currently used by Assimp)
1240		struct IfcReinforcingBar;
1241		typedef NotImplemented IfcCurrencyRelationship; // (not currently used by Assimp)
1242		typedef NotImplemented IfcSoundValue; // (not currently used by Assimp)
1243		struct IfcCShapeProfileDef;
1244		struct IfcPermit;
1245		struct IfcSlabType;
1246		typedef NotImplemented IfcSlippageConnectionCondition; // (not currently used by Assimp)
1247		struct IfcLampType;
1248		struct IfcPlanarExtent;
1249		struct IfcAlarmType;
1250		typedef NotImplemented IfcDocumentElectronicFormat; // (not currently used by Assimp)
1251		struct IfcElectricFlowStorageDeviceType;
1252		struct IfcEquipmentElement;
1253		struct IfcLightFixtureType;
1254		typedef NotImplemented IfcMetric; // (not currently used by Assimp)
1255		typedef NotImplemented IfcRelNests; // (not currently used by Assimp)
1256		struct IfcCurtainWall;
1257		typedef NotImplemented IfcRelAssociatesDocument; // (not currently used by Assimp)
1258		typedef NotImplemented IfcComplexProperty; // (not currently used by Assimp)
1259		typedef NotImplemented IfcVertexBasedTextureMap; // (not currently used by Assimp)
1260		struct IfcSlab;
1261		struct IfcCurtainWallType;
1262		struct IfcOutletType;
1263		struct IfcCompressorType;
1264		struct IfcCraneRailAShapeProfileDef;
1265		struct IfcFlowSegment;
1266		struct IfcSectionedSpine;
1267		typedef NotImplemented IfcTableRow; // (not currently used by Assimp)
1268		typedef NotImplemented IfcDraughtingPreDefinedTextFont; // (not currently used by Assimp)
1269		struct IfcElectricTimeControlType;
1270		struct IfcFaceSurface;
1271		typedef NotImplemented IfcMaterialList; // (not currently used by Assimp)
1272		struct IfcMotorConnectionType;
1273		struct IfcFlowFitting;
1274		struct IfcPointOnCurve;
1275		struct IfcTransportElementType;
1276		typedef NotImplemented IfcRegularTimeSeries; // (not currently used by Assimp)
1277		typedef NotImplemented IfcRelAssociatesConstraint; // (not currently used by Assimp)
1278		typedef NotImplemented IfcPropertyEnumeratedValue; // (not currently used by Assimp)
1279		typedef NotImplemented IfcStructuralSteelProfileProperties; // (not currently used by Assimp)
1280		struct IfcCableSegmentType;
1281		typedef NotImplemented IfcExternallyDefinedHatchStyle; // (not currently used by Assimp)
1282		struct IfcAnnotationSurface;
1283		struct IfcCompositeCurveSegment;
1284		struct IfcServiceLife;
1285		struct IfcPlateType;
1286		typedef NotImplemented IfcCurveStyle; // (not currently used by Assimp)
1287		typedef NotImplemented IfcSectionProperties; // (not currently used by Assimp)
1288		struct IfcVibrationIsolatorType;
1289		typedef NotImplemented IfcTextureMap; // (not currently used by Assimp)
1290		struct IfcTrimmedCurve;
1291		struct IfcMappedItem;
	1364	struct IfcPipeFittingType;
	1365	struct IfcTransportElement;
	1366	struct IfcAnnotationTextOccurrence;
	1367	typedef NotImplemented IfcConnectionSurfaceGeometry; // (not currently used by Assimp)
	1368	struct IfcStructuralAnalysisModel;
	1369	typedef NotImplemented IfcConnectionCurveGeometry; // (not currently used by Assimp)
	1370	struct IfcConditionCriterion;
	1371	typedef NotImplemented IfcWaterProperties; // (not currently used by Assimp)
1292	1372	typedef NotImplemented IfcMaterialLayer; // (not currently used by Assimp)
1293		struct IfcDirection;
1294		struct IfcBlock;
1295		struct IfcProjectOrderRecord;
1296		struct IfcFlowMeterType;
1297		struct IfcControllerType;
1298		struct IfcBeam;
1299		struct IfcArbitraryOpenProfileDef;
1300		struct IfcCenterLineProfileDef;
1301		typedef NotImplemented IfcStructuralLoadPlanarForce; // (not currently used by Assimp)
1302		struct IfcTimeSeriesSchedule;
1303		struct IfcRoundedEdgeFeature;
1304		typedef NotImplemented IfcWindowLiningProperties; // (not currently used by Assimp)
1305		typedef NotImplemented IfcRelOverridesProperties; // (not currently used by Assimp)
1306		typedef NotImplemented IfcApprovalRelationship; // (not currently used by Assimp)
1307		struct IfcIShapeProfileDef;
1308		struct IfcSpaceHeaterType;
1309		typedef NotImplemented IfcExternallyDefinedSurfaceStyle; // (not currently used by Assimp)
1310		typedef NotImplemented IfcDerivedUnit; // (not currently used by Assimp)
1311		struct IfcFlowStorageDevice;
1312		typedef NotImplemented IfcMaterialClassificationRelationship; // (not currently used by Assimp)
1313		typedef NotImplemented IfcClassificationItem; // (not currently used by Assimp)
1314		struct IfcRevolvedAreaSolid;
1315		typedef NotImplemented IfcConnectionPointGeometry; // (not currently used by Assimp)
1316		struct IfcDoor;
1317		struct IfcEllipse;
1318		struct IfcTubeBundleType;
1319		struct IfcAngularDimension;
1320		typedef NotImplemented IfcThermalMaterialProperties; // (not currently used by Assimp)
1321		struct IfcFaceBasedSurfaceModel;
1322		struct IfcCraneRailFShapeProfileDef;
1323		struct IfcColumnType;
1324		struct IfcTShapeProfileDef;
1325		struct IfcEnergyConversionDevice;
1326		typedef NotImplemented IfcConnectionPointEccentricity; // (not currently used by Assimp)
1327		typedef NotImplemented IfcReinforcementDefinitionProperties; // (not currently used by Assimp)
1328		typedef NotImplemented IfcCurveStyleFontAndScaling; // (not currently used by Assimp)
1329		struct IfcWorkSchedule;
1330		typedef NotImplemented IfcOrganizationRelationship; // (not currently used by Assimp)
1331		struct IfcZone;
1332		struct IfcTransportElement;
1333		typedef NotImplemented IfcDraughtingPreDefinedCurveFont; // (not currently used by Assimp)
1334		struct IfcGeometricRepresentationSubContext;
1335		struct IfcLShapeProfileDef;
1336		struct IfcGeometricCurveSet;
1337		struct IfcActor;
1338		struct IfcOccupant;
1339		typedef NotImplemented IfcPhysicalComplexQuantity; // (not currently used by Assimp)
1340		struct IfcBooleanClippingResult;
1341		typedef NotImplemented IfcPreDefinedTerminatorSymbol; // (not currently used by Assimp)
1342		struct IfcAnnotationFillArea;
1343		typedef NotImplemented IfcConstraintAggregationRelationship; // (not currently used by Assimp)
1344		typedef NotImplemented IfcRelAssociatesApproval; // (not currently used by Assimp)
1345		typedef NotImplemented IfcRelAssociatesMaterial; // (not currently used by Assimp)
1346		typedef NotImplemented IfcRelAssignsToProduct; // (not currently used by Assimp)
1347		typedef NotImplemented IfcAppliedValueRelationship; // (not currently used by Assimp)
1348		struct IfcLightSourceSpot;
1349		struct IfcFireSuppressionTerminalType;
1350		typedef NotImplemented IfcElementQuantity; // (not currently used by Assimp)
1351		typedef NotImplemented IfcDimensionPair; // (not currently used by Assimp)
1352		struct IfcElectricGeneratorType;
1353		typedef NotImplemented IfcRelSequence; // (not currently used by Assimp)
1354		struct IfcInventory;
1355		struct IfcPolyline;
1356		struct IfcBoxedHalfSpace;
1357		struct IfcAirTerminalType;
1358		typedef NotImplemented IfcSectionReinforcementProperties; // (not currently used by Assimp)
1359		struct IfcDistributionPort;
1360		struct IfcCostItem;
1361		struct IfcStructuredDimensionCallout;
1362		struct IfcStructuralResultGroup;
1363		typedef NotImplemented IfcRelSpaceBoundary; // (not currently used by Assimp)
1364		struct IfcOrientedEdge;
1365		typedef NotImplemented IfcRelAssignsToResource; // (not currently used by Assimp)
1366		struct IfcCsgSolid;
1367		typedef NotImplemented IfcProductsOfCombustionProperties; // (not currently used by Assimp)
1368		typedef NotImplemented IfcRelaxation; // (not currently used by Assimp)
1369		struct IfcPlanarBox;
1370		typedef NotImplemented IfcQuantityLength; // (not currently used by Assimp)
1371		struct IfcMaterialDefinitionRepresentation;
1372		struct IfcAsymmetricIShapeProfileDef;
1373		struct IfcRepresentationMap;
	1373	typedef NotImplemented IfcCostValue; // (not currently used by Assimp)
1374	1374
1375	1375
1376	1376

1390	1390	// C++ wrapper for IfcTypeObject
1391	1391	struct IfcTypeObject : IfcObjectDefinition, ObjectHelper<IfcTypeObject,2> { IfcTypeObject() : Object("IfcTypeObject") {}
1392	1392	Maybe< IfcLabel::Out > ApplicableOccurrence;
1393		Maybe< ListOf< Lazy< NotImplemented >, 1, 0 > > HasPropertySets;
	1393	Maybe< ListOf< Lazy< IfcPropertySetDefinition >, 1, 0 > > HasPropertySets;
1394	1394	};
1395	1395
1396	1396	// C++ wrapper for IfcTypeProduct

1404	1404	Maybe< IfcLabel::Out > ElementType;
1405	1405	};
1406	1406
1407		// C++ wrapper for IfcFurnishingElementType
1408		struct IfcFurnishingElementType : IfcElementType, ObjectHelper<IfcFurnishingElementType,0> { IfcFurnishingElementType() : Object("IfcFurnishingElementType") {}
1409
1410		};
1411
1412		// C++ wrapper for IfcFurnitureType
1413		struct IfcFurnitureType : IfcFurnishingElementType, ObjectHelper<IfcFurnitureType,1> { IfcFurnitureType() : Object("IfcFurnitureType") {}
1414		IfcAssemblyPlaceEnum::Out AssemblyPlace;
1415		};
1416
1417		// C++ wrapper for IfcObject
1418		struct IfcObject : IfcObjectDefinition, ObjectHelper<IfcObject,1> { IfcObject() : Object("IfcObject") {}
1419		Maybe< IfcLabel::Out > ObjectType;
1420		};
1421
1422		// C++ wrapper for IfcProduct
1423		struct IfcProduct : IfcObject, ObjectHelper<IfcProduct,2> { IfcProduct() : Object("IfcProduct") {}
1424		Maybe< Lazy< IfcObjectPlacement > > ObjectPlacement;
1425		Maybe< Lazy< IfcProductRepresentation > > Representation;
1426		};
1427
1428		// C++ wrapper for IfcGrid
1429		struct IfcGrid : IfcProduct, ObjectHelper<IfcGrid,3> { IfcGrid() : Object("IfcGrid") {}
1430		ListOf< Lazy< NotImplemented >, 1, 0 > UAxes;
1431		ListOf< Lazy< NotImplemented >, 1, 0 > VAxes;
1432		Maybe< ListOf< Lazy< NotImplemented >, 1, 0 > > WAxes;
1433		};
1434
1435		// C++ wrapper for IfcRepresentationItem
1436		struct IfcRepresentationItem : ObjectHelper<IfcRepresentationItem,0> { IfcRepresentationItem() : Object("IfcRepresentationItem") {}
1437
1438		};
1439
1440		// C++ wrapper for IfcGeometricRepresentationItem
1441		struct IfcGeometricRepresentationItem : IfcRepresentationItem, ObjectHelper<IfcGeometricRepresentationItem,0> { IfcGeometricRepresentationItem() : Object("IfcGeometricRepresentationItem") {}
1442
1443		};
1444
1445		// C++ wrapper for IfcOneDirectionRepeatFactor
1446		struct IfcOneDirectionRepeatFactor : IfcGeometricRepresentationItem, ObjectHelper<IfcOneDirectionRepeatFactor,1> { IfcOneDirectionRepeatFactor() : Object("IfcOneDirectionRepeatFactor") {}
1447		Lazy< IfcVector > RepeatFactor;
1448		};
1449
1450		// C++ wrapper for IfcTwoDirectionRepeatFactor
1451		struct IfcTwoDirectionRepeatFactor : IfcOneDirectionRepeatFactor, ObjectHelper<IfcTwoDirectionRepeatFactor,1> { IfcTwoDirectionRepeatFactor() : Object("IfcTwoDirectionRepeatFactor") {}
1452		Lazy< IfcVector > SecondRepeatFactor;
1453		};
1454
1455		// C++ wrapper for IfcElement
1456		struct IfcElement : IfcProduct, ObjectHelper<IfcElement,1> { IfcElement() : Object("IfcElement") {}
1457		Maybe< IfcIdentifier::Out > Tag;
1458		};
1459
1460		// C++ wrapper for IfcElementComponent
1461		struct IfcElementComponent : IfcElement, ObjectHelper<IfcElementComponent,0> { IfcElementComponent() : Object("IfcElementComponent") {}
1462
1463		};
1464
1465		// C++ wrapper for IfcSpatialStructureElementType
1466		struct IfcSpatialStructureElementType : IfcElementType, ObjectHelper<IfcSpatialStructureElementType,0> { IfcSpatialStructureElementType() : Object("IfcSpatialStructureElementType") {}
1467
1468		};
1469
1470		// C++ wrapper for IfcControl
1471		struct IfcControl : IfcObject, ObjectHelper<IfcControl,0> { IfcControl() : Object("IfcControl") {}
1472
1473		};
1474
1475		// C++ wrapper for IfcActionRequest
1476		struct IfcActionRequest : IfcControl, ObjectHelper<IfcActionRequest,1> { IfcActionRequest() : Object("IfcActionRequest") {}
1477		IfcIdentifier::Out RequestID;
1478		};
1479
1480	1407	// C++ wrapper for IfcDistributionElementType
1481	1408	struct IfcDistributionElementType : IfcElementType, ObjectHelper<IfcDistributionElementType,0> { IfcDistributionElementType() : Object("IfcDistributionElementType") {}
1482	1409

1487	1414
1488	1415	};
1489	1416
1490		// C++ wrapper for IfcEnergyConversionDeviceType
1491		struct IfcEnergyConversionDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcEnergyConversionDeviceType,0> { IfcEnergyConversionDeviceType() : Object("IfcEnergyConversionDeviceType") {}
1492
1493		};
1494
1495		// C++ wrapper for IfcCooledBeamType
1496		struct IfcCooledBeamType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCooledBeamType,1> { IfcCooledBeamType() : Object("IfcCooledBeamType") {}
1497		IfcCooledBeamTypeEnum::Out PredefinedType;
1498		};
1499
1500		// C++ wrapper for IfcCsgPrimitive3D
1501		struct IfcCsgPrimitive3D : IfcGeometricRepresentationItem, ObjectHelper<IfcCsgPrimitive3D,1> { IfcCsgPrimitive3D() : Object("IfcCsgPrimitive3D") {}
1502		Lazy< IfcAxis2Placement3D > Position;
1503		};
1504
1505		// C++ wrapper for IfcRectangularPyramid
1506		struct IfcRectangularPyramid : IfcCsgPrimitive3D, ObjectHelper<IfcRectangularPyramid,3> { IfcRectangularPyramid() : Object("IfcRectangularPyramid") {}
1507		IfcPositiveLengthMeasure::Out XLength;
1508		IfcPositiveLengthMeasure::Out YLength;
1509		IfcPositiveLengthMeasure::Out Height;
1510		};
1511
1512		// C++ wrapper for IfcSurface
1513		struct IfcSurface : IfcGeometricRepresentationItem, ObjectHelper<IfcSurface,0> { IfcSurface() : Object("IfcSurface") {}
1514
1515		};
1516
1517		// C++ wrapper for IfcBoundedSurface
1518		struct IfcBoundedSurface : IfcSurface, ObjectHelper<IfcBoundedSurface,0> { IfcBoundedSurface() : Object("IfcBoundedSurface") {}
1519
1520		};
1521
1522		// C++ wrapper for IfcRectangularTrimmedSurface
1523		struct IfcRectangularTrimmedSurface : IfcBoundedSurface, ObjectHelper<IfcRectangularTrimmedSurface,7> { IfcRectangularTrimmedSurface() : Object("IfcRectangularTrimmedSurface") {}
1524		Lazy< IfcSurface > BasisSurface;
1525		IfcParameterValue::Out U1;
1526		IfcParameterValue::Out V1;
1527		IfcParameterValue::Out U2;
1528		IfcParameterValue::Out V2;
1529		BOOLEAN::Out Usense;
1530		BOOLEAN::Out Vsense;
1531		};
1532
1533		// C++ wrapper for IfcGroup
1534		struct IfcGroup : IfcObject, ObjectHelper<IfcGroup,0> { IfcGroup() : Object("IfcGroup") {}
1535
1536		};
1537
1538		// C++ wrapper for IfcRelationship
1539		struct IfcRelationship : IfcRoot, ObjectHelper<IfcRelationship,0> { IfcRelationship() : Object("IfcRelationship") {}
1540
1541		};
1542
1543		// C++ wrapper for IfcHalfSpaceSolid
1544		struct IfcHalfSpaceSolid : IfcGeometricRepresentationItem, ObjectHelper<IfcHalfSpaceSolid,2> { IfcHalfSpaceSolid() : Object("IfcHalfSpaceSolid") {}
1545		Lazy< IfcSurface > BaseSurface;
1546		BOOLEAN::Out AgreementFlag;
1547		};
1548
1549		// C++ wrapper for IfcPolygonalBoundedHalfSpace
1550		struct IfcPolygonalBoundedHalfSpace : IfcHalfSpaceSolid, ObjectHelper<IfcPolygonalBoundedHalfSpace,2> { IfcPolygonalBoundedHalfSpace() : Object("IfcPolygonalBoundedHalfSpace") {}
1551		Lazy< IfcAxis2Placement3D > Position;
1552		Lazy< IfcBoundedCurve > PolygonalBoundary;
1553		};
1554
1555		// C++ wrapper for IfcAirToAirHeatRecoveryType
1556		struct IfcAirToAirHeatRecoveryType : IfcEnergyConversionDeviceType, ObjectHelper<IfcAirToAirHeatRecoveryType,1> { IfcAirToAirHeatRecoveryType() : Object("IfcAirToAirHeatRecoveryType") {}
1557		IfcAirToAirHeatRecoveryTypeEnum::Out PredefinedType;
1558		};
1559
1560		// C++ wrapper for IfcFlowFittingType
1561		struct IfcFlowFittingType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowFittingType,0> { IfcFlowFittingType() : Object("IfcFlowFittingType") {}
1562
1563		};
1564
1565		// C++ wrapper for IfcPipeFittingType
1566		struct IfcPipeFittingType : IfcFlowFittingType, ObjectHelper<IfcPipeFittingType,1> { IfcPipeFittingType() : Object("IfcPipeFittingType") {}
1567		IfcPipeFittingTypeEnum::Out PredefinedType;
	1417	// C++ wrapper for IfcFlowControllerType
	1418	struct IfcFlowControllerType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowControllerType,0> { IfcFlowControllerType() : Object("IfcFlowControllerType") {}
	1419
	1420	};
	1421
	1422	// C++ wrapper for IfcElectricTimeControlType
	1423	struct IfcElectricTimeControlType : IfcFlowControllerType, ObjectHelper<IfcElectricTimeControlType,1> { IfcElectricTimeControlType() : Object("IfcElectricTimeControlType") {}
	1424	IfcElectricTimeControlTypeEnum::Out PredefinedType;
1568	1425	};
1569	1426
1570	1427	// C++ wrapper for IfcRepresentation

1575	1432	ListOf< Lazy< IfcRepresentationItem >, 1, 0 > Items;
1576	1433	};
1577	1434
1578		// C++ wrapper for IfcStyleModel
1579		struct IfcStyleModel : IfcRepresentation, ObjectHelper<IfcStyleModel,0> { IfcStyleModel() : Object("IfcStyleModel") {}
1580
1581		};
1582
1583		// C++ wrapper for IfcStyledRepresentation
1584		struct IfcStyledRepresentation : IfcStyleModel, ObjectHelper<IfcStyledRepresentation,0> { IfcStyledRepresentation() : Object("IfcStyledRepresentation") {}
	1435	// C++ wrapper for IfcShapeModel
	1436	struct IfcShapeModel : IfcRepresentation, ObjectHelper<IfcShapeModel,0> { IfcShapeModel() : Object("IfcShapeModel") {}
	1437
	1438	};
	1439
	1440	// C++ wrapper for IfcTopologyRepresentation
	1441	struct IfcTopologyRepresentation : IfcShapeModel, ObjectHelper<IfcTopologyRepresentation,0> { IfcTopologyRepresentation() : Object("IfcTopologyRepresentation") {}
	1442
	1443	};
	1444
	1445	// C++ wrapper for IfcRelationship
	1446	struct IfcRelationship : IfcRoot, ObjectHelper<IfcRelationship,0> { IfcRelationship() : Object("IfcRelationship") {}
	1447
	1448	};
	1449
	1450	// C++ wrapper for IfcRelConnects
	1451	struct IfcRelConnects : IfcRelationship, ObjectHelper<IfcRelConnects,0> { IfcRelConnects() : Object("IfcRelConnects") {}
	1452
	1453	};
	1454
	1455	// C++ wrapper for IfcFlowFittingType
	1456	struct IfcFlowFittingType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowFittingType,0> { IfcFlowFittingType() : Object("IfcFlowFittingType") {}
	1457
	1458	};
	1459
	1460	// C++ wrapper for IfcCableCarrierFittingType
	1461	struct IfcCableCarrierFittingType : IfcFlowFittingType, ObjectHelper<IfcCableCarrierFittingType,1> { IfcCableCarrierFittingType() : Object("IfcCableCarrierFittingType") {}
	1462	IfcCableCarrierFittingTypeEnum::Out PredefinedType;
	1463	};
	1464
	1465	// C++ wrapper for IfcEnergyConversionDeviceType
	1466	struct IfcEnergyConversionDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcEnergyConversionDeviceType,0> { IfcEnergyConversionDeviceType() : Object("IfcEnergyConversionDeviceType") {}
	1467
	1468	};
	1469
	1470	// C++ wrapper for IfcCoilType
	1471	struct IfcCoilType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCoilType,1> { IfcCoilType() : Object("IfcCoilType") {}
	1472	IfcCoilTypeEnum::Out PredefinedType;
	1473	};
	1474
	1475	// C++ wrapper for IfcObject
	1476	struct IfcObject : IfcObjectDefinition, ObjectHelper<IfcObject,1> { IfcObject() : Object("IfcObject") {}
	1477	Maybe< IfcLabel::Out > ObjectType;
	1478	};
	1479
	1480	// C++ wrapper for IfcControl
	1481	struct IfcControl : IfcObject, ObjectHelper<IfcControl,0> { IfcControl() : Object("IfcControl") {}
	1482
	1483	};
	1484
	1485	// C++ wrapper for IfcPerformanceHistory
	1486	struct IfcPerformanceHistory : IfcControl, ObjectHelper<IfcPerformanceHistory,1> { IfcPerformanceHistory() : Object("IfcPerformanceHistory") {}
	1487	IfcLabel::Out LifeCyclePhase;
	1488	};
	1489
	1490	// C++ wrapper for IfcRepresentationItem
	1491	struct IfcRepresentationItem : ObjectHelper<IfcRepresentationItem,0> { IfcRepresentationItem() : Object("IfcRepresentationItem") {}
	1492
	1493	};
	1494
	1495	// C++ wrapper for IfcGeometricRepresentationItem
	1496	struct IfcGeometricRepresentationItem : IfcRepresentationItem, ObjectHelper<IfcGeometricRepresentationItem,0> { IfcGeometricRepresentationItem() : Object("IfcGeometricRepresentationItem") {}
	1497
	1498	};
	1499
	1500	// C++ wrapper for IfcTextLiteral
	1501	struct IfcTextLiteral : IfcGeometricRepresentationItem, ObjectHelper<IfcTextLiteral,3> { IfcTextLiteral() : Object("IfcTextLiteral") {}
	1502	IfcPresentableText::Out Literal;
	1503	IfcAxis2Placement::Out Placement;
	1504	IfcTextPath::Out Path;
	1505	};
	1506
	1507	// C++ wrapper for IfcTextLiteralWithExtent
	1508	struct IfcTextLiteralWithExtent : IfcTextLiteral, ObjectHelper<IfcTextLiteralWithExtent,2> { IfcTextLiteralWithExtent() : Object("IfcTextLiteralWithExtent") {}
	1509	Lazy< IfcPlanarExtent > Extent;
	1510	IfcBoxAlignment::Out BoxAlignment;
	1511	};
	1512
	1513	// C++ wrapper for IfcProductRepresentation
	1514	struct IfcProductRepresentation : ObjectHelper<IfcProductRepresentation,3> { IfcProductRepresentation() : Object("IfcProductRepresentation") {}
	1515	Maybe< IfcLabel::Out > Name;
	1516	Maybe< IfcText::Out > Description;
	1517	ListOf< Lazy< IfcRepresentation >, 1, 0 > Representations;
	1518	};
	1519
	1520	// C++ wrapper for IfcProduct
	1521	struct IfcProduct : IfcObject, ObjectHelper<IfcProduct,2> { IfcProduct() : Object("IfcProduct") {}
	1522	Maybe< Lazy< IfcObjectPlacement > > ObjectPlacement;
	1523	Maybe< Lazy< IfcProductRepresentation > > Representation;
	1524	};
	1525
	1526	// C++ wrapper for IfcElement
	1527	struct IfcElement : IfcProduct, ObjectHelper<IfcElement,1> { IfcElement() : Object("IfcElement") {}
	1528	Maybe< IfcIdentifier::Out > Tag;
	1529	};
	1530
	1531	// C++ wrapper for IfcDistributionElement
	1532	struct IfcDistributionElement : IfcElement, ObjectHelper<IfcDistributionElement,0> { IfcDistributionElement() : Object("IfcDistributionElement") {}
	1533
	1534	};
	1535
	1536	// C++ wrapper for IfcDistributionFlowElement
	1537	struct IfcDistributionFlowElement : IfcDistributionElement, ObjectHelper<IfcDistributionFlowElement,0> { IfcDistributionFlowElement() : Object("IfcDistributionFlowElement") {}
	1538
	1539	};
	1540
	1541	// C++ wrapper for IfcCurve
	1542	struct IfcCurve : IfcGeometricRepresentationItem, ObjectHelper<IfcCurve,0> { IfcCurve() : Object("IfcCurve") {}
	1543
	1544	};
	1545
	1546	// C++ wrapper for IfcBoundedCurve
	1547	struct IfcBoundedCurve : IfcCurve, ObjectHelper<IfcBoundedCurve,0> { IfcBoundedCurve() : Object("IfcBoundedCurve") {}
	1548
	1549	};
	1550
	1551	// C++ wrapper for IfcCompositeCurve
	1552	struct IfcCompositeCurve : IfcBoundedCurve, ObjectHelper<IfcCompositeCurve,2> { IfcCompositeCurve() : Object("IfcCompositeCurve") {}
	1553	ListOf< Lazy< IfcCompositeCurveSegment >, 1, 0 > Segments;
	1554	LOGICAL::Out SelfIntersect;
	1555	};
	1556
	1557	// C++ wrapper for Ifc2DCompositeCurve
	1558	struct Ifc2DCompositeCurve : IfcCompositeCurve, ObjectHelper<Ifc2DCompositeCurve,0> { Ifc2DCompositeCurve() : Object("Ifc2DCompositeCurve") {}
	1559
	1560	};
	1561
	1562	// C++ wrapper for IfcCartesianTransformationOperator
	1563	struct IfcCartesianTransformationOperator : IfcGeometricRepresentationItem, ObjectHelper<IfcCartesianTransformationOperator,4> { IfcCartesianTransformationOperator() : Object("IfcCartesianTransformationOperator") {}
	1564	Maybe< Lazy< IfcDirection > > Axis1;
	1565	Maybe< Lazy< IfcDirection > > Axis2;
	1566	Lazy< IfcCartesianPoint > LocalOrigin;
	1567	Maybe< REAL::Out > Scale;
	1568	};
	1569
	1570	// C++ wrapper for IfcCartesianTransformationOperator3D
	1571	struct IfcCartesianTransformationOperator3D : IfcCartesianTransformationOperator, ObjectHelper<IfcCartesianTransformationOperator3D,1> { IfcCartesianTransformationOperator3D() : Object("IfcCartesianTransformationOperator3D") {}
	1572	Maybe< Lazy< IfcDirection > > Axis3;
	1573	};
	1574
	1575	// C++ wrapper for IfcProperty
	1576	struct IfcProperty : ObjectHelper<IfcProperty,2> { IfcProperty() : Object("IfcProperty") {}
	1577	IfcIdentifier::Out Name;
	1578	Maybe< IfcText::Out > Description;
	1579	};
	1580
	1581	// C++ wrapper for IfcSimpleProperty
	1582	struct IfcSimpleProperty : IfcProperty, ObjectHelper<IfcSimpleProperty,0> { IfcSimpleProperty() : Object("IfcSimpleProperty") {}
	1583
	1584	};
	1585
	1586	// C++ wrapper for IfcPropertyEnumeratedValue
	1587	struct IfcPropertyEnumeratedValue : IfcSimpleProperty, ObjectHelper<IfcPropertyEnumeratedValue,2> { IfcPropertyEnumeratedValue() : Object("IfcPropertyEnumeratedValue") {}
	1588	ListOf< IfcValue, 1, 0 >::Out EnumerationValues;
	1589	Maybe< Lazy< NotImplemented > > EnumerationReference;
	1590	};
	1591
	1592	// C++ wrapper for IfcBuildingElementType
	1593	struct IfcBuildingElementType : IfcElementType, ObjectHelper<IfcBuildingElementType,0> { IfcBuildingElementType() : Object("IfcBuildingElementType") {}
	1594
	1595	};
	1596
	1597	// C++ wrapper for IfcStairFlightType
	1598	struct IfcStairFlightType : IfcBuildingElementType, ObjectHelper<IfcStairFlightType,1> { IfcStairFlightType() : Object("IfcStairFlightType") {}
	1599	IfcStairFlightTypeEnum::Out PredefinedType;
	1600	};
	1601
	1602	// C++ wrapper for IfcSurface
	1603	struct IfcSurface : IfcGeometricRepresentationItem, ObjectHelper<IfcSurface,0> { IfcSurface() : Object("IfcSurface") {}
	1604
	1605	};
	1606
	1607	// C++ wrapper for IfcElementarySurface
	1608	struct IfcElementarySurface : IfcSurface, ObjectHelper<IfcElementarySurface,1> { IfcElementarySurface() : Object("IfcElementarySurface") {}
	1609	Lazy< IfcAxis2Placement3D > Position;
	1610	};
	1611
	1612	// C++ wrapper for IfcPlane
	1613	struct IfcPlane : IfcElementarySurface, ObjectHelper<IfcPlane,0> { IfcPlane() : Object("IfcPlane") {}
1585	1614
1586	1615	};
1587	1616

1592	1621	IfcBooleanOperand::Out SecondOperand;
1593	1622	};
1594	1623
1595		// C++ wrapper for IfcFeatureElement
1596		struct IfcFeatureElement : IfcElement, ObjectHelper<IfcFeatureElement,0> { IfcFeatureElement() : Object("IfcFeatureElement") {}
1597
1598		};
1599
1600		// C++ wrapper for IfcFeatureElementSubtraction
1601		struct IfcFeatureElementSubtraction : IfcFeatureElement, ObjectHelper<IfcFeatureElementSubtraction,0> { IfcFeatureElementSubtraction() : Object("IfcFeatureElementSubtraction") {}
1602
1603		};
1604
1605		// C++ wrapper for IfcOpeningElement
1606		struct IfcOpeningElement : IfcFeatureElementSubtraction, ObjectHelper<IfcOpeningElement,0> { IfcOpeningElement() : Object("IfcOpeningElement") {}
1607
1608		};
1609
1610		// C++ wrapper for IfcConditionCriterion
1611		struct IfcConditionCriterion : IfcControl, ObjectHelper<IfcConditionCriterion,2> { IfcConditionCriterion() : Object("IfcConditionCriterion") {}
1612		IfcConditionCriterionSelect::Out Criterion;
1613		IfcDateTimeSelect::Out CriterionDateTime;
1614		};
1615
1616		// C++ wrapper for IfcFlowTerminalType
1617		struct IfcFlowTerminalType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowTerminalType,0> { IfcFlowTerminalType() : Object("IfcFlowTerminalType") {}
1618
1619		};
1620
1621		// C++ wrapper for IfcFlowControllerType
1622		struct IfcFlowControllerType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowControllerType,0> { IfcFlowControllerType() : Object("IfcFlowControllerType") {}
1623
1624		};
1625
1626		// C++ wrapper for IfcSwitchingDeviceType
1627		struct IfcSwitchingDeviceType : IfcFlowControllerType, ObjectHelper<IfcSwitchingDeviceType,1> { IfcSwitchingDeviceType() : Object("IfcSwitchingDeviceType") {}
1628		IfcSwitchingDeviceTypeEnum::Out PredefinedType;
1629		};
1630
1631		// C++ wrapper for IfcSystem
1632		struct IfcSystem : IfcGroup, ObjectHelper<IfcSystem,0> { IfcSystem() : Object("IfcSystem") {}
1633
1634		};
1635
1636		// C++ wrapper for IfcElectricalCircuit
1637		struct IfcElectricalCircuit : IfcSystem, ObjectHelper<IfcElectricalCircuit,0> { IfcElectricalCircuit() : Object("IfcElectricalCircuit") {}
1638
1639		};
1640
1641		// C++ wrapper for IfcUnitaryEquipmentType
1642		struct IfcUnitaryEquipmentType : IfcEnergyConversionDeviceType, ObjectHelper<IfcUnitaryEquipmentType,1> { IfcUnitaryEquipmentType() : Object("IfcUnitaryEquipmentType") {}
1643		IfcUnitaryEquipmentTypeEnum::Out PredefinedType;
1644		};
1645
1646		// C++ wrapper for IfcPort
1647		struct IfcPort : IfcProduct, ObjectHelper<IfcPort,0> { IfcPort() : Object("IfcPort") {}
1648
1649		};
1650
1651		// C++ wrapper for IfcPlacement
1652		struct IfcPlacement : IfcGeometricRepresentationItem, ObjectHelper<IfcPlacement,1> { IfcPlacement() : Object("IfcPlacement") {}
1653		Lazy< IfcCartesianPoint > Location;
1654		};
1655
1656		// C++ wrapper for IfcProfileDef
1657		struct IfcProfileDef : ObjectHelper<IfcProfileDef,2> { IfcProfileDef() : Object("IfcProfileDef") {}
1658		IfcProfileTypeEnum::Out ProfileType;
1659		Maybe< IfcLabel::Out > ProfileName;
1660		};
1661
1662		// C++ wrapper for IfcArbitraryClosedProfileDef
1663		struct IfcArbitraryClosedProfileDef : IfcProfileDef, ObjectHelper<IfcArbitraryClosedProfileDef,1> { IfcArbitraryClosedProfileDef() : Object("IfcArbitraryClosedProfileDef") {}
1664		Lazy< IfcCurve > OuterCurve;
1665		};
1666
1667		// C++ wrapper for IfcCurve
1668		struct IfcCurve : IfcGeometricRepresentationItem, ObjectHelper<IfcCurve,0> { IfcCurve() : Object("IfcCurve") {}
1669
1670		};
1671
1672		// C++ wrapper for IfcConic
1673		struct IfcConic : IfcCurve, ObjectHelper<IfcConic,1> { IfcConic() : Object("IfcConic") {}
1674		IfcAxis2Placement::Out Position;
1675		};
1676
1677		// C++ wrapper for IfcCircle
1678		struct IfcCircle : IfcConic, ObjectHelper<IfcCircle,1> { IfcCircle() : Object("IfcCircle") {}
1679		IfcPositiveLengthMeasure::Out Radius;
1680		};
1681
1682		// C++ wrapper for IfcElementarySurface
1683		struct IfcElementarySurface : IfcSurface, ObjectHelper<IfcElementarySurface,1> { IfcElementarySurface() : Object("IfcElementarySurface") {}
1684		Lazy< IfcAxis2Placement3D > Position;
1685		};
1686
1687		// C++ wrapper for IfcPlane
1688		struct IfcPlane : IfcElementarySurface, ObjectHelper<IfcPlane,0> { IfcPlane() : Object("IfcPlane") {}
1689
1690		};
1691
1692		// C++ wrapper for IfcCostSchedule
1693		struct IfcCostSchedule : IfcControl, ObjectHelper<IfcCostSchedule,8> { IfcCostSchedule() : Object("IfcCostSchedule") {}
1694		Maybe< IfcActorSelect::Out > SubmittedBy;
1695		Maybe< IfcActorSelect::Out > PreparedBy;
1696		Maybe< IfcDateTimeSelect::Out > SubmittedOn;
1697		Maybe< IfcLabel::Out > Status;
1698		Maybe< ListOf< IfcActorSelect, 1, 0 >::Out > TargetUsers;
1699		Maybe< IfcDateTimeSelect::Out > UpdateDate;
1700		IfcIdentifier::Out ID;
1701		IfcCostScheduleTypeEnum::Out PredefinedType;
1702		};
1703
1704		// C++ wrapper for IfcRightCircularCone
1705		struct IfcRightCircularCone : IfcCsgPrimitive3D, ObjectHelper<IfcRightCircularCone,2> { IfcRightCircularCone() : Object("IfcRightCircularCone") {}
1706		IfcPositiveLengthMeasure::Out Height;
1707		IfcPositiveLengthMeasure::Out BottomRadius;
1708		};
1709
1710		// C++ wrapper for IfcElementAssembly
1711		struct IfcElementAssembly : IfcElement, ObjectHelper<IfcElementAssembly,2> { IfcElementAssembly() : Object("IfcElementAssembly") {}
1712		Maybe< IfcAssemblyPlaceEnum::Out > AssemblyPlace;
1713		IfcElementAssemblyTypeEnum::Out PredefinedType;
1714		};
1715
1716		// C++ wrapper for IfcBuildingElement
1717		struct IfcBuildingElement : IfcElement, ObjectHelper<IfcBuildingElement,0> { IfcBuildingElement() : Object("IfcBuildingElement") {}
1718
1719		};
1720
1721		// C++ wrapper for IfcMember
1722		struct IfcMember : IfcBuildingElement, ObjectHelper<IfcMember,0> { IfcMember() : Object("IfcMember") {}
1723
1724		};
1725
1726		// C++ wrapper for IfcBuildingElementProxy
1727		struct IfcBuildingElementProxy : IfcBuildingElement, ObjectHelper<IfcBuildingElementProxy,1> { IfcBuildingElementProxy() : Object("IfcBuildingElementProxy") {}
1728		Maybe< IfcElementCompositionEnum::Out > CompositionType;
1729		};
1730
1731		// C++ wrapper for IfcStructuralActivity
1732		struct IfcStructuralActivity : IfcProduct, ObjectHelper<IfcStructuralActivity,2> { IfcStructuralActivity() : Object("IfcStructuralActivity") {}
1733		Lazy< NotImplemented > AppliedLoad;
1734		IfcGlobalOrLocalEnum::Out GlobalOrLocal;
1735		};
1736
1737		// C++ wrapper for IfcStructuralAction
1738		struct IfcStructuralAction : IfcStructuralActivity, ObjectHelper<IfcStructuralAction,2> { IfcStructuralAction() : Object("IfcStructuralAction") {}
1739		BOOLEAN::Out DestabilizingLoad;
1740		Maybe< Lazy< IfcStructuralReaction > > CausedBy;
1741		};
1742
1743		// C++ wrapper for IfcStructuralPlanarAction
1744		struct IfcStructuralPlanarAction : IfcStructuralAction, ObjectHelper<IfcStructuralPlanarAction,1> { IfcStructuralPlanarAction() : Object("IfcStructuralPlanarAction") {}
1745		IfcProjectedOrTrueLengthEnum::Out ProjectedOrTrue;
1746		};
1747
1748		// C++ wrapper for IfcTopologicalRepresentationItem
1749		struct IfcTopologicalRepresentationItem : IfcRepresentationItem, ObjectHelper<IfcTopologicalRepresentationItem,0> { IfcTopologicalRepresentationItem() : Object("IfcTopologicalRepresentationItem") {}
1750
1751		};
1752
1753		// C++ wrapper for IfcConnectedFaceSet
1754		struct IfcConnectedFaceSet : IfcTopologicalRepresentationItem, ObjectHelper<IfcConnectedFaceSet,1> { IfcConnectedFaceSet() : Object("IfcConnectedFaceSet") {}
1755		ListOf< Lazy< IfcFace >, 1, 0 > CfsFaces;
1756		};
1757
1758		// C++ wrapper for IfcSweptSurface
1759		struct IfcSweptSurface : IfcSurface, ObjectHelper<IfcSweptSurface,2> { IfcSweptSurface() : Object("IfcSweptSurface") {}
1760		Lazy< IfcProfileDef > SweptCurve;
1761		Lazy< IfcAxis2Placement3D > Position;
1762		};
1763
1764		// C++ wrapper for IfcSurfaceOfLinearExtrusion
1765		struct IfcSurfaceOfLinearExtrusion : IfcSweptSurface, ObjectHelper<IfcSurfaceOfLinearExtrusion,2> { IfcSurfaceOfLinearExtrusion() : Object("IfcSurfaceOfLinearExtrusion") {}
1766		Lazy< IfcDirection > ExtrudedDirection;
1767		IfcLengthMeasure::Out Depth;
1768		};
1769
1770		// C++ wrapper for IfcArbitraryProfileDefWithVoids
1771		struct IfcArbitraryProfileDefWithVoids : IfcArbitraryClosedProfileDef, ObjectHelper<IfcArbitraryProfileDefWithVoids,1> { IfcArbitraryProfileDefWithVoids() : Object("IfcArbitraryProfileDefWithVoids") {}
1772		ListOf< Lazy< IfcCurve >, 1, 0 > InnerCurves;
1773		};
1774
1775		// C++ wrapper for IfcProcess
1776		struct IfcProcess : IfcObject, ObjectHelper<IfcProcess,0> { IfcProcess() : Object("IfcProcess") {}
1777
1778		};
1779
1780		// C++ wrapper for IfcProcedure
1781		struct IfcProcedure : IfcProcess, ObjectHelper<IfcProcedure,3> { IfcProcedure() : Object("IfcProcedure") {}
1782		IfcIdentifier::Out ProcedureID;
1783		IfcProcedureTypeEnum::Out ProcedureType;
1784		Maybe< IfcLabel::Out > UserDefinedProcedureType;
1785		};
1786
1787		// C++ wrapper for IfcVector
1788		struct IfcVector : IfcGeometricRepresentationItem, ObjectHelper<IfcVector,2> { IfcVector() : Object("IfcVector") {}
1789		Lazy< IfcDirection > Orientation;
1790		IfcLengthMeasure::Out Magnitude;
1791		};
1792
1793		// C++ wrapper for IfcFaceBound
1794		struct IfcFaceBound : IfcTopologicalRepresentationItem, ObjectHelper<IfcFaceBound,2> { IfcFaceBound() : Object("IfcFaceBound") {}
1795		Lazy< IfcLoop > Bound;
1796		BOOLEAN::Out Orientation;
1797		};
1798
1799		// C++ wrapper for IfcFaceOuterBound
1800		struct IfcFaceOuterBound : IfcFaceBound, ObjectHelper<IfcFaceOuterBound,0> { IfcFaceOuterBound() : Object("IfcFaceOuterBound") {}
1801
1802		};
1803
1804		// C++ wrapper for IfcFeatureElementAddition
1805		struct IfcFeatureElementAddition : IfcFeatureElement, ObjectHelper<IfcFeatureElementAddition,0> { IfcFeatureElementAddition() : Object("IfcFeatureElementAddition") {}
1806
1807		};
1808
1809		// C++ wrapper for IfcNamedUnit
1810		struct IfcNamedUnit : ObjectHelper<IfcNamedUnit,2> { IfcNamedUnit() : Object("IfcNamedUnit") {}
1811		Lazy< NotImplemented > Dimensions;
1812		IfcUnitEnum::Out UnitType;
1813		};
1814
1815		// C++ wrapper for IfcConversionBasedUnit
1816		struct IfcConversionBasedUnit : IfcNamedUnit, ObjectHelper<IfcConversionBasedUnit,2> { IfcConversionBasedUnit() : Object("IfcConversionBasedUnit") {}
1817		IfcLabel::Out Name;
1818		Lazy< IfcMeasureWithUnit > ConversionFactor;
1819		};
1820
1821		// C++ wrapper for IfcHeatExchangerType
1822		struct IfcHeatExchangerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcHeatExchangerType,1> { IfcHeatExchangerType() : Object("IfcHeatExchangerType") {}
1823		IfcHeatExchangerTypeEnum::Out PredefinedType;
1824		};
1825
1826		// C++ wrapper for IfcPresentationStyleAssignment
1827		struct IfcPresentationStyleAssignment : ObjectHelper<IfcPresentationStyleAssignment,1> { IfcPresentationStyleAssignment() : Object("IfcPresentationStyleAssignment") {}
1828		ListOf< IfcPresentationStyleSelect, 1, 0 >::Out Styles;
1829		};
1830
1831		// C++ wrapper for IfcFlowTreatmentDeviceType
1832		struct IfcFlowTreatmentDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowTreatmentDeviceType,0> { IfcFlowTreatmentDeviceType() : Object("IfcFlowTreatmentDeviceType") {}
1833
1834		};
1835
1836		// C++ wrapper for IfcFilterType
1837		struct IfcFilterType : IfcFlowTreatmentDeviceType, ObjectHelper<IfcFilterType,1> { IfcFilterType() : Object("IfcFilterType") {}
1838		IfcFilterTypeEnum::Out PredefinedType;
1839		};
1840
1841		// C++ wrapper for IfcResource
1842		struct IfcResource : IfcObject, ObjectHelper<IfcResource,0> { IfcResource() : Object("IfcResource") {}
1843
1844		};
1845
1846		// C++ wrapper for IfcEvaporativeCoolerType
1847		struct IfcEvaporativeCoolerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcEvaporativeCoolerType,1> { IfcEvaporativeCoolerType() : Object("IfcEvaporativeCoolerType") {}
1848		IfcEvaporativeCoolerTypeEnum::Out PredefinedType;
1849		};
1850
1851		// C++ wrapper for IfcOffsetCurve2D
1852		struct IfcOffsetCurve2D : IfcCurve, ObjectHelper<IfcOffsetCurve2D,3> { IfcOffsetCurve2D() : Object("IfcOffsetCurve2D") {}
1853		Lazy< IfcCurve > BasisCurve;
1854		IfcLengthMeasure::Out Distance;
1855		LOGICAL::Out SelfIntersect;
1856		};
1857
1858		// C++ wrapper for IfcEdge
1859		struct IfcEdge : IfcTopologicalRepresentationItem, ObjectHelper<IfcEdge,2> { IfcEdge() : Object("IfcEdge") {}
1860		Lazy< IfcVertex > EdgeStart;
1861		Lazy< IfcVertex > EdgeEnd;
1862		};
1863
1864		// C++ wrapper for IfcSubedge
1865		struct IfcSubedge : IfcEdge, ObjectHelper<IfcSubedge,1> { IfcSubedge() : Object("IfcSubedge") {}
1866		Lazy< IfcEdge > ParentEdge;
1867		};
1868
1869		// C++ wrapper for IfcProxy
1870		struct IfcProxy : IfcProduct, ObjectHelper<IfcProxy,2> { IfcProxy() : Object("IfcProxy") {}
1871		IfcObjectTypeEnum::Out ProxyType;
1872		Maybe< IfcLabel::Out > Tag;
1873		};
1874
1875		// C++ wrapper for IfcLine
1876		struct IfcLine : IfcCurve, ObjectHelper<IfcLine,2> { IfcLine() : Object("IfcLine") {}
1877		Lazy< IfcCartesianPoint > Pnt;
1878		Lazy< IfcVector > Dir;
1879		};
1880
1881		// C++ wrapper for IfcColumn
1882		struct IfcColumn : IfcBuildingElement, ObjectHelper<IfcColumn,0> { IfcColumn() : Object("IfcColumn") {}
1883
1884		};
1885
1886		// C++ wrapper for IfcObjectPlacement
1887		struct IfcObjectPlacement : ObjectHelper<IfcObjectPlacement,0> { IfcObjectPlacement() : Object("IfcObjectPlacement") {}
1888
1889		};
1890
1891		// C++ wrapper for IfcGridPlacement
1892		struct IfcGridPlacement : IfcObjectPlacement, ObjectHelper<IfcGridPlacement,2> { IfcGridPlacement() : Object("IfcGridPlacement") {}
1893		Lazy< NotImplemented > PlacementLocation;
1894		Maybe< Lazy< NotImplemented > > PlacementRefDirection;
1895		};
1896
1897		// C++ wrapper for IfcDistributionControlElementType
1898		struct IfcDistributionControlElementType : IfcDistributionElementType, ObjectHelper<IfcDistributionControlElementType,0> { IfcDistributionControlElementType() : Object("IfcDistributionControlElementType") {}
1899
1900		};
1901
1902		// C++ wrapper for IfcRelConnects
1903		struct IfcRelConnects : IfcRelationship, ObjectHelper<IfcRelConnects,0> { IfcRelConnects() : Object("IfcRelConnects") {}
1904
1905		};
1906
1907		// C++ wrapper for IfcAnnotation
1908		struct IfcAnnotation : IfcProduct, ObjectHelper<IfcAnnotation,0> { IfcAnnotation() : Object("IfcAnnotation") {}
1909
1910		};
1911
1912		// C++ wrapper for IfcPlate
1913		struct IfcPlate : IfcBuildingElement, ObjectHelper<IfcPlate,0> { IfcPlate() : Object("IfcPlate") {}
	1624	// C++ wrapper for IfcBooleanClippingResult
	1625	struct IfcBooleanClippingResult : IfcBooleanResult, ObjectHelper<IfcBooleanClippingResult,0> { IfcBooleanClippingResult() : Object("IfcBooleanClippingResult") {}
1914	1626
1915	1627	};
1916	1628

1924	1636	Lazy< IfcClosedShell > Outer;
1925	1637	};
1926	1638
1927		// C++ wrapper for IfcFlowStorageDeviceType
1928		struct IfcFlowStorageDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowStorageDeviceType,0> { IfcFlowStorageDeviceType() : Object("IfcFlowStorageDeviceType") {}
1929
	1639	// C++ wrapper for IfcFlowTerminalType
	1640	struct IfcFlowTerminalType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowTerminalType,0> { IfcFlowTerminalType() : Object("IfcFlowTerminalType") {}
	1641
	1642	};
	1643
	1644	// C++ wrapper for IfcStackTerminalType
	1645	struct IfcStackTerminalType : IfcFlowTerminalType, ObjectHelper<IfcStackTerminalType,1> { IfcStackTerminalType() : Object("IfcStackTerminalType") {}
	1646	IfcStackTerminalTypeEnum::Out PredefinedType;
1930	1647	};
1931	1648
1932	1649	// C++ wrapper for IfcStructuralItem
1933	1650	struct IfcStructuralItem : IfcProduct, ObjectHelper<IfcStructuralItem,0> { IfcStructuralItem() : Object("IfcStructuralItem") {}
1934	1651
1935		};
1936
1937		// C++ wrapper for IfcStructuralMember
1938		struct IfcStructuralMember : IfcStructuralItem, ObjectHelper<IfcStructuralMember,0> { IfcStructuralMember() : Object("IfcStructuralMember") {}
1939
1940		};
1941
1942		// C++ wrapper for IfcStructuralCurveMember
1943		struct IfcStructuralCurveMember : IfcStructuralMember, ObjectHelper<IfcStructuralCurveMember,1> { IfcStructuralCurveMember() : Object("IfcStructuralCurveMember") {}
1944		IfcStructuralCurveTypeEnum::Out PredefinedType;
1945	1652	};
1946	1653
1947	1654	// C++ wrapper for IfcStructuralConnection

1949	1656	Maybe< Lazy< NotImplemented > > AppliedCondition;
1950	1657	};
1951	1658
1952		// C++ wrapper for IfcStructuralSurfaceConnection
1953		struct IfcStructuralSurfaceConnection : IfcStructuralConnection, ObjectHelper<IfcStructuralSurfaceConnection,0> { IfcStructuralSurfaceConnection() : Object("IfcStructuralSurfaceConnection") {}
1954
1955		};
1956
1957		// C++ wrapper for IfcCoilType
1958		struct IfcCoilType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCoilType,1> { IfcCoilType() : Object("IfcCoilType") {}
1959		IfcCoilTypeEnum::Out PredefinedType;
1960		};
1961
1962		// C++ wrapper for IfcDuctFittingType
1963		struct IfcDuctFittingType : IfcFlowFittingType, ObjectHelper<IfcDuctFittingType,1> { IfcDuctFittingType() : Object("IfcDuctFittingType") {}
1964		IfcDuctFittingTypeEnum::Out PredefinedType;
1965		};
1966
1967		// C++ wrapper for IfcStyledItem
1968		struct IfcStyledItem : IfcRepresentationItem, ObjectHelper<IfcStyledItem,3> { IfcStyledItem() : Object("IfcStyledItem") {}
1969		Maybe< Lazy< IfcRepresentationItem > > Item;
1970		ListOf< Lazy< IfcPresentationStyleAssignment >, 1, 0 > Styles;
1971		Maybe< IfcLabel::Out > Name;
1972		};
1973
1974		// C++ wrapper for IfcAnnotationOccurrence
1975		struct IfcAnnotationOccurrence : IfcStyledItem, ObjectHelper<IfcAnnotationOccurrence,0> { IfcAnnotationOccurrence() : Object("IfcAnnotationOccurrence") {}
1976
1977		};
1978
1979		// C++ wrapper for IfcAnnotationCurveOccurrence
1980		struct IfcAnnotationCurveOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationCurveOccurrence,0> { IfcAnnotationCurveOccurrence() : Object("IfcAnnotationCurveOccurrence") {}
1981
1982		};
1983
1984		// C++ wrapper for IfcDimensionCurve
1985		struct IfcDimensionCurve : IfcAnnotationCurveOccurrence, ObjectHelper<IfcDimensionCurve,0> { IfcDimensionCurve() : Object("IfcDimensionCurve") {}
1986
1987		};
1988
1989		// C++ wrapper for IfcBoundedCurve
1990		struct IfcBoundedCurve : IfcCurve, ObjectHelper<IfcBoundedCurve,0> { IfcBoundedCurve() : Object("IfcBoundedCurve") {}
1991
1992		};
1993
1994		// C++ wrapper for IfcAxis1Placement
1995		struct IfcAxis1Placement : IfcPlacement, ObjectHelper<IfcAxis1Placement,1> { IfcAxis1Placement() : Object("IfcAxis1Placement") {}
1996		Maybe< Lazy< IfcDirection > > Axis;
1997		};
1998
1999		// C++ wrapper for IfcStructuralPointAction
2000		struct IfcStructuralPointAction : IfcStructuralAction, ObjectHelper<IfcStructuralPointAction,0> { IfcStructuralPointAction() : Object("IfcStructuralPointAction") {}
2001
2002		};
2003
2004		// C++ wrapper for IfcSpatialStructureElement
2005		struct IfcSpatialStructureElement : IfcProduct, ObjectHelper<IfcSpatialStructureElement,2> { IfcSpatialStructureElement() : Object("IfcSpatialStructureElement") {}
2006		Maybe< IfcLabel::Out > LongName;
2007		IfcElementCompositionEnum::Out CompositionType;
2008		};
2009
2010		// C++ wrapper for IfcSpace
2011		struct IfcSpace : IfcSpatialStructureElement, ObjectHelper<IfcSpace,2> { IfcSpace() : Object("IfcSpace") {}
2012		IfcInternalOrExternalEnum::Out InteriorOrExteriorSpace;
2013		Maybe< IfcLengthMeasure::Out > ElevationWithFlooring;
2014		};
2015
2016		// C++ wrapper for IfcContextDependentUnit
2017		struct IfcContextDependentUnit : IfcNamedUnit, ObjectHelper<IfcContextDependentUnit,1> { IfcContextDependentUnit() : Object("IfcContextDependentUnit") {}
2018		IfcLabel::Out Name;
2019		};
2020
2021		// C++ wrapper for IfcCoolingTowerType
2022		struct IfcCoolingTowerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCoolingTowerType,1> { IfcCoolingTowerType() : Object("IfcCoolingTowerType") {}
2023		IfcCoolingTowerTypeEnum::Out PredefinedType;
2024		};
2025
2026		// C++ wrapper for IfcFacetedBrepWithVoids
2027		struct IfcFacetedBrepWithVoids : IfcManifoldSolidBrep, ObjectHelper<IfcFacetedBrepWithVoids,1> { IfcFacetedBrepWithVoids() : Object("IfcFacetedBrepWithVoids") {}
2028		ListOf< Lazy< IfcClosedShell >, 1, 0 > Voids;
2029		};
2030
2031		// C++ wrapper for IfcValveType
2032		struct IfcValveType : IfcFlowControllerType, ObjectHelper<IfcValveType,1> { IfcValveType() : Object("IfcValveType") {}
2033		IfcValveTypeEnum::Out PredefinedType;
2034		};
2035
2036		// C++ wrapper for IfcSystemFurnitureElementType
2037		struct IfcSystemFurnitureElementType : IfcFurnishingElementType, ObjectHelper<IfcSystemFurnitureElementType,0> { IfcSystemFurnitureElementType() : Object("IfcSystemFurnitureElementType") {}
2038
2039		};
2040
2041		// C++ wrapper for IfcDiscreteAccessory
2042		struct IfcDiscreteAccessory : IfcElementComponent, ObjectHelper<IfcDiscreteAccessory,0> { IfcDiscreteAccessory() : Object("IfcDiscreteAccessory") {}
2043
2044		};
2045
2046		// C++ wrapper for IfcBuildingElementType
2047		struct IfcBuildingElementType : IfcElementType, ObjectHelper<IfcBuildingElementType,0> { IfcBuildingElementType() : Object("IfcBuildingElementType") {}
2048
2049		};
2050
2051		// C++ wrapper for IfcRailingType
2052		struct IfcRailingType : IfcBuildingElementType, ObjectHelper<IfcRailingType,1> { IfcRailingType() : Object("IfcRailingType") {}
2053		IfcRailingTypeEnum::Out PredefinedType;
2054		};
2055
2056		// C++ wrapper for IfcGasTerminalType
2057		struct IfcGasTerminalType : IfcFlowTerminalType, ObjectHelper<IfcGasTerminalType,1> { IfcGasTerminalType() : Object("IfcGasTerminalType") {}
2058		IfcGasTerminalTypeEnum::Out PredefinedType;
2059		};
2060
2061		// C++ wrapper for IfcSpaceProgram
2062		struct IfcSpaceProgram : IfcControl, ObjectHelper<IfcSpaceProgram,5> { IfcSpaceProgram() : Object("IfcSpaceProgram") {}
2063		IfcIdentifier::Out SpaceProgramIdentifier;
2064		Maybe< IfcAreaMeasure::Out > MaxRequiredArea;
2065		Maybe< IfcAreaMeasure::Out > MinRequiredArea;
2066		Maybe< Lazy< IfcSpatialStructureElement > > RequestedLocation;
2067		IfcAreaMeasure::Out StandardRequiredArea;
2068		};
2069
2070		// C++ wrapper for IfcCovering
2071		struct IfcCovering : IfcBuildingElement, ObjectHelper<IfcCovering,1> { IfcCovering() : Object("IfcCovering") {}
2072		Maybe< IfcCoveringTypeEnum::Out > PredefinedType;
2073		};
2074
2075		// C++ wrapper for IfcPresentationStyle
2076		struct IfcPresentationStyle : ObjectHelper<IfcPresentationStyle,1> { IfcPresentationStyle() : Object("IfcPresentationStyle") {}
2077		Maybe< IfcLabel::Out > Name;
2078		};
2079
2080		// C++ wrapper for IfcElectricHeaterType
2081		struct IfcElectricHeaterType : IfcFlowTerminalType, ObjectHelper<IfcElectricHeaterType,1> { IfcElectricHeaterType() : Object("IfcElectricHeaterType") {}
2082		IfcElectricHeaterTypeEnum::Out PredefinedType;
2083		};
2084
2085		// C++ wrapper for IfcBuildingStorey
2086		struct IfcBuildingStorey : IfcSpatialStructureElement, ObjectHelper<IfcBuildingStorey,1> { IfcBuildingStorey() : Object("IfcBuildingStorey") {}
2087		Maybe< IfcLengthMeasure::Out > Elevation;
2088		};
2089
2090		// C++ wrapper for IfcVertex
2091		struct IfcVertex : IfcTopologicalRepresentationItem, ObjectHelper<IfcVertex,0> { IfcVertex() : Object("IfcVertex") {}
2092
2093		};
2094
2095		// C++ wrapper for IfcVertexPoint
2096		struct IfcVertexPoint : IfcVertex, ObjectHelper<IfcVertexPoint,1> { IfcVertexPoint() : Object("IfcVertexPoint") {}
2097		Lazy< IfcPoint > VertexGeometry;
2098		};
2099
2100		// C++ wrapper for IfcFlowInstrumentType
2101		struct IfcFlowInstrumentType : IfcDistributionControlElementType, ObjectHelper<IfcFlowInstrumentType,1> { IfcFlowInstrumentType() : Object("IfcFlowInstrumentType") {}
2102		IfcFlowInstrumentTypeEnum::Out PredefinedType;
2103		};
2104
2105		// C++ wrapper for IfcParameterizedProfileDef
2106		struct IfcParameterizedProfileDef : IfcProfileDef, ObjectHelper<IfcParameterizedProfileDef,1> { IfcParameterizedProfileDef() : Object("IfcParameterizedProfileDef") {}
2107		Lazy< IfcAxis2Placement2D > Position;
2108		};
2109
2110		// C++ wrapper for IfcUShapeProfileDef
2111		struct IfcUShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcUShapeProfileDef,8> { IfcUShapeProfileDef() : Object("IfcUShapeProfileDef") {}
2112		IfcPositiveLengthMeasure::Out Depth;
2113		IfcPositiveLengthMeasure::Out FlangeWidth;
2114		IfcPositiveLengthMeasure::Out WebThickness;
2115		IfcPositiveLengthMeasure::Out FlangeThickness;
2116		Maybe< IfcPositiveLengthMeasure::Out > FilletRadius;
2117		Maybe< IfcPositiveLengthMeasure::Out > EdgeRadius;
2118		Maybe< IfcPlaneAngleMeasure::Out > FlangeSlope;
2119		Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInX;
2120		};
2121
2122		// C++ wrapper for IfcRamp
2123		struct IfcRamp : IfcBuildingElement, ObjectHelper<IfcRamp,1> { IfcRamp() : Object("IfcRamp") {}
2124		IfcRampTypeEnum::Out ShapeType;
2125		};
2126
2127		// C++ wrapper for IfcCompositeCurve
2128		struct IfcCompositeCurve : IfcBoundedCurve, ObjectHelper<IfcCompositeCurve,2> { IfcCompositeCurve() : Object("IfcCompositeCurve") {}
2129		ListOf< Lazy< IfcCompositeCurveSegment >, 1, 0 > Segments;
2130		LOGICAL::Out SelfIntersect;
2131		};
2132
2133		// C++ wrapper for IfcStructuralCurveMemberVarying
2134		struct IfcStructuralCurveMemberVarying : IfcStructuralCurveMember, ObjectHelper<IfcStructuralCurveMemberVarying,0> { IfcStructuralCurveMemberVarying() : Object("IfcStructuralCurveMemberVarying") {}
2135
2136		};
2137
2138		// C++ wrapper for IfcRampFlightType
2139		struct IfcRampFlightType : IfcBuildingElementType, ObjectHelper<IfcRampFlightType,1> { IfcRampFlightType() : Object("IfcRampFlightType") {}
2140		IfcRampFlightTypeEnum::Out PredefinedType;
2141		};
2142
2143		// C++ wrapper for IfcDraughtingCallout
2144		struct IfcDraughtingCallout : IfcGeometricRepresentationItem, ObjectHelper<IfcDraughtingCallout,1> { IfcDraughtingCallout() : Object("IfcDraughtingCallout") {}
2145		ListOf< IfcDraughtingCalloutElement, 1, 0 >::Out Contents;
2146		};
2147
2148		// C++ wrapper for IfcDimensionCurveDirectedCallout
2149		struct IfcDimensionCurveDirectedCallout : IfcDraughtingCallout, ObjectHelper<IfcDimensionCurveDirectedCallout,0> { IfcDimensionCurveDirectedCallout() : Object("IfcDimensionCurveDirectedCallout") {}
2150
2151		};
2152
2153		// C++ wrapper for IfcRadiusDimension
2154		struct IfcRadiusDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcRadiusDimension,0> { IfcRadiusDimension() : Object("IfcRadiusDimension") {}
2155
2156		};
2157
2158		// C++ wrapper for IfcEdgeFeature
2159		struct IfcEdgeFeature : IfcFeatureElementSubtraction, ObjectHelper<IfcEdgeFeature,1> { IfcEdgeFeature() : Object("IfcEdgeFeature") {}
2160		Maybe< IfcPositiveLengthMeasure::Out > FeatureLength;
2161		};
2162
2163		// C++ wrapper for IfcSweptAreaSolid
2164		struct IfcSweptAreaSolid : IfcSolidModel, ObjectHelper<IfcSweptAreaSolid,2> { IfcSweptAreaSolid() : Object("IfcSweptAreaSolid") {}
2165		Lazy< IfcProfileDef > SweptArea;
2166		Lazy< IfcAxis2Placement3D > Position;
2167		};
2168
2169		// C++ wrapper for IfcExtrudedAreaSolid
2170		struct IfcExtrudedAreaSolid : IfcSweptAreaSolid, ObjectHelper<IfcExtrudedAreaSolid,2> { IfcExtrudedAreaSolid() : Object("IfcExtrudedAreaSolid") {}
2171		Lazy< IfcDirection > ExtrudedDirection;
2172		IfcPositiveLengthMeasure::Out Depth;
2173		};
2174
2175		// C++ wrapper for IfcAnnotationTextOccurrence
2176		struct IfcAnnotationTextOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationTextOccurrence,0> { IfcAnnotationTextOccurrence() : Object("IfcAnnotationTextOccurrence") {}
2177
2178		};
2179
2180		// C++ wrapper for IfcStair
2181		struct IfcStair : IfcBuildingElement, ObjectHelper<IfcStair,1> { IfcStair() : Object("IfcStair") {}
2182		IfcStairTypeEnum::Out ShapeType;
2183		};
2184
2185		// C++ wrapper for IfcFillAreaStyleTileSymbolWithStyle
2186		struct IfcFillAreaStyleTileSymbolWithStyle : IfcGeometricRepresentationItem, ObjectHelper<IfcFillAreaStyleTileSymbolWithStyle,1> { IfcFillAreaStyleTileSymbolWithStyle() : Object("IfcFillAreaStyleTileSymbolWithStyle") {}
2187		Lazy< IfcAnnotationSymbolOccurrence > Symbol;
2188		};
2189
2190		// C++ wrapper for IfcAnnotationSymbolOccurrence
2191		struct IfcAnnotationSymbolOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationSymbolOccurrence,0> { IfcAnnotationSymbolOccurrence() : Object("IfcAnnotationSymbolOccurrence") {}
2192
2193		};
2194
2195		// C++ wrapper for IfcTerminatorSymbol
2196		struct IfcTerminatorSymbol : IfcAnnotationSymbolOccurrence, ObjectHelper<IfcTerminatorSymbol,1> { IfcTerminatorSymbol() : Object("IfcTerminatorSymbol") {}
2197		Lazy< IfcAnnotationCurveOccurrence > AnnotatedCurve;
2198		};
2199
2200		// C++ wrapper for IfcDimensionCurveTerminator
2201		struct IfcDimensionCurveTerminator : IfcTerminatorSymbol, ObjectHelper<IfcDimensionCurveTerminator,1> { IfcDimensionCurveTerminator() : Object("IfcDimensionCurveTerminator") {}
2202		IfcDimensionExtentUsage::Out Role;
2203		};
2204
2205		// C++ wrapper for IfcRectangleProfileDef
2206		struct IfcRectangleProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcRectangleProfileDef,2> { IfcRectangleProfileDef() : Object("IfcRectangleProfileDef") {}
2207		IfcPositiveLengthMeasure::Out XDim;
2208		IfcPositiveLengthMeasure::Out YDim;
2209		};
2210
2211		// C++ wrapper for IfcRectangleHollowProfileDef
2212		struct IfcRectangleHollowProfileDef : IfcRectangleProfileDef, ObjectHelper<IfcRectangleHollowProfileDef,3> { IfcRectangleHollowProfileDef() : Object("IfcRectangleHollowProfileDef") {}
2213		IfcPositiveLengthMeasure::Out WallThickness;
2214		Maybe< IfcPositiveLengthMeasure::Out > InnerFilletRadius;
2215		Maybe< IfcPositiveLengthMeasure::Out > OuterFilletRadius;
2216		};
2217
2218		// C++ wrapper for IfcLocalPlacement
2219		struct IfcLocalPlacement : IfcObjectPlacement, ObjectHelper<IfcLocalPlacement,2> { IfcLocalPlacement() : Object("IfcLocalPlacement") {}
2220		Maybe< Lazy< IfcObjectPlacement > > PlacementRelTo;
2221		IfcAxis2Placement::Out RelativePlacement;
	1659	// C++ wrapper for IfcStructuralCurveConnection
	1660	struct IfcStructuralCurveConnection : IfcStructuralConnection, ObjectHelper<IfcStructuralCurveConnection,0> { IfcStructuralCurveConnection() : Object("IfcStructuralCurveConnection") {}
	1661
	1662	};
	1663
	1664	// C++ wrapper for IfcJunctionBoxType
	1665	struct IfcJunctionBoxType : IfcFlowFittingType, ObjectHelper<IfcJunctionBoxType,1> { IfcJunctionBoxType() : Object("IfcJunctionBoxType") {}
	1666	IfcJunctionBoxTypeEnum::Out PredefinedType;
	1667	};
	1668
	1669	// C++ wrapper for IfcPropertyDefinition
	1670	struct IfcPropertyDefinition : IfcRoot, ObjectHelper<IfcPropertyDefinition,0> { IfcPropertyDefinition() : Object("IfcPropertyDefinition") {}
	1671
	1672	};
	1673
	1674	// C++ wrapper for IfcPropertySetDefinition
	1675	struct IfcPropertySetDefinition : IfcPropertyDefinition, ObjectHelper<IfcPropertySetDefinition,0> { IfcPropertySetDefinition() : Object("IfcPropertySetDefinition") {}
	1676
	1677	};
	1678
	1679	// C++ wrapper for IfcProcess
	1680	struct IfcProcess : IfcObject, ObjectHelper<IfcProcess,0> { IfcProcess() : Object("IfcProcess") {}
	1681
2222	1682	};
2223	1683
2224	1684	// C++ wrapper for IfcTask

2230	1690	Maybe< INTEGER::Out > Priority;
2231	1691	};
2232	1692
2233		// C++ wrapper for IfcAnnotationFillAreaOccurrence
2234		struct IfcAnnotationFillAreaOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationFillAreaOccurrence,2> { IfcAnnotationFillAreaOccurrence() : Object("IfcAnnotationFillAreaOccurrence") {}
2235		Maybe< Lazy< IfcPoint > > FillStyleTarget;
2236		Maybe< IfcGlobalOrLocalEnum::Out > GlobalOrLocal;
2237		};
2238
2239		// C++ wrapper for IfcFace
2240		struct IfcFace : IfcTopologicalRepresentationItem, ObjectHelper<IfcFace,1> { IfcFace() : Object("IfcFace") {}
2241		ListOf< Lazy< IfcFaceBound >, 1, 0 > Bounds;
2242		};
2243
2244		// C++ wrapper for IfcFlowSegmentType
2245		struct IfcFlowSegmentType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowSegmentType,0> { IfcFlowSegmentType() : Object("IfcFlowSegmentType") {}
2246
2247		};
2248
2249		// C++ wrapper for IfcDuctSegmentType
2250		struct IfcDuctSegmentType : IfcFlowSegmentType, ObjectHelper<IfcDuctSegmentType,1> { IfcDuctSegmentType() : Object("IfcDuctSegmentType") {}
2251		IfcDuctSegmentTypeEnum::Out PredefinedType;
	1693	// C++ wrapper for IfcRelFillsElement
	1694	struct IfcRelFillsElement : IfcRelConnects, ObjectHelper<IfcRelFillsElement,2> { IfcRelFillsElement() : Object("IfcRelFillsElement") {}
	1695	Lazy< IfcOpeningElement > RelatingOpeningElement;
	1696	Lazy< IfcElement > RelatedBuildingElement;
	1697	};
	1698
	1699	// C++ wrapper for IfcProcedure
	1700	struct IfcProcedure : IfcProcess, ObjectHelper<IfcProcedure,3> { IfcProcedure() : Object("IfcProcedure") {}
	1701	IfcIdentifier::Out ProcedureID;
	1702	IfcProcedureTypeEnum::Out ProcedureType;
	1703	Maybe< IfcLabel::Out > UserDefinedProcedureType;
	1704	};
	1705
	1706	// C++ wrapper for IfcProxy
	1707	struct IfcProxy : IfcProduct, ObjectHelper<IfcProxy,2> { IfcProxy() : Object("IfcProxy") {}
	1708	IfcObjectTypeEnum::Out ProxyType;
	1709	Maybe< IfcLabel::Out > Tag;
	1710	};
	1711
	1712	// C++ wrapper for IfcResource
	1713	struct IfcResource : IfcObject, ObjectHelper<IfcResource,0> { IfcResource() : Object("IfcResource") {}
	1714
2252	1715	};
2253	1716
2254	1717	// C++ wrapper for IfcConstructionResource

2259	1722	Maybe< Lazy< IfcMeasureWithUnit > > BaseQuantity;
2260	1723	};
2261	1724
2262		// C++ wrapper for IfcConstructionEquipmentResource
2263		struct IfcConstructionEquipmentResource : IfcConstructionResource, ObjectHelper<IfcConstructionEquipmentResource,0> { IfcConstructionEquipmentResource() : Object("IfcConstructionEquipmentResource") {}
2264
2265		};
2266
2267		// C++ wrapper for IfcSanitaryTerminalType
2268		struct IfcSanitaryTerminalType : IfcFlowTerminalType, ObjectHelper<IfcSanitaryTerminalType,1> { IfcSanitaryTerminalType() : Object("IfcSanitaryTerminalType") {}
2269		IfcSanitaryTerminalTypeEnum::Out PredefinedType;
	1725	// C++ wrapper for IfcSubContractResource
	1726	struct IfcSubContractResource : IfcConstructionResource, ObjectHelper<IfcSubContractResource,2> { IfcSubContractResource() : Object("IfcSubContractResource") {}
	1727	Maybe< IfcActorSelect::Out > SubContractor;
	1728	Maybe< IfcText::Out > JobDescription;
	1729	};
	1730
	1731	// C++ wrapper for IfcRelContainedInSpatialStructure
	1732	struct IfcRelContainedInSpatialStructure : IfcRelConnects, ObjectHelper<IfcRelContainedInSpatialStructure,2> { IfcRelContainedInSpatialStructure() : Object("IfcRelContainedInSpatialStructure") {}
	1733	ListOf< Lazy< IfcProduct >, 1, 0 > RelatedElements;
	1734	Lazy< IfcSpatialStructureElement > RelatingStructure;
	1735	};
	1736
	1737	// C++ wrapper for IfcTopologicalRepresentationItem
	1738	struct IfcTopologicalRepresentationItem : IfcRepresentationItem, ObjectHelper<IfcTopologicalRepresentationItem,0> { IfcTopologicalRepresentationItem() : Object("IfcTopologicalRepresentationItem") {}
	1739
	1740	};
	1741
	1742	// C++ wrapper for IfcEdge
	1743	struct IfcEdge : IfcTopologicalRepresentationItem, ObjectHelper<IfcEdge,2> { IfcEdge() : Object("IfcEdge") {}
	1744	Lazy< IfcVertex > EdgeStart;
	1745	Lazy< IfcVertex > EdgeEnd;
	1746	};
	1747
	1748	// C++ wrapper for IfcEdgeCurve
	1749	struct IfcEdgeCurve : IfcEdge, ObjectHelper<IfcEdgeCurve,2> { IfcEdgeCurve() : Object("IfcEdgeCurve") {}
	1750	Lazy< IfcCurve > EdgeGeometry;
	1751	BOOLEAN::Out SameSense;
	1752	};
	1753
	1754	// C++ wrapper for IfcPlateType
	1755	struct IfcPlateType : IfcBuildingElementType, ObjectHelper<IfcPlateType,1> { IfcPlateType() : Object("IfcPlateType") {}
	1756	IfcPlateTypeEnum::Out PredefinedType;
	1757	};
	1758
	1759	// C++ wrapper for IfcObjectPlacement
	1760	struct IfcObjectPlacement : ObjectHelper<IfcObjectPlacement,0> { IfcObjectPlacement() : Object("IfcObjectPlacement") {}
	1761
	1762	};
	1763
	1764	// C++ wrapper for IfcGridPlacement
	1765	struct IfcGridPlacement : IfcObjectPlacement, ObjectHelper<IfcGridPlacement,2> { IfcGridPlacement() : Object("IfcGridPlacement") {}
	1766	Lazy< NotImplemented > PlacementLocation;
	1767	Maybe< Lazy< NotImplemented > > PlacementRefDirection;
	1768	};
	1769
	1770	// C++ wrapper for IfcFireSuppressionTerminalType
	1771	struct IfcFireSuppressionTerminalType : IfcFlowTerminalType, ObjectHelper<IfcFireSuppressionTerminalType,1> { IfcFireSuppressionTerminalType() : Object("IfcFireSuppressionTerminalType") {}
	1772	IfcFireSuppressionTerminalTypeEnum::Out PredefinedType;
	1773	};
	1774
	1775	// C++ wrapper for IfcFlowStorageDevice
	1776	struct IfcFlowStorageDevice : IfcDistributionFlowElement, ObjectHelper<IfcFlowStorageDevice,0> { IfcFlowStorageDevice() : Object("IfcFlowStorageDevice") {}
	1777
	1778	};
	1779
	1780	// C++ wrapper for IfcSweptSurface
	1781	struct IfcSweptSurface : IfcSurface, ObjectHelper<IfcSweptSurface,2> { IfcSweptSurface() : Object("IfcSweptSurface") {}
	1782	Lazy< IfcProfileDef > SweptCurve;
	1783	Lazy< IfcAxis2Placement3D > Position;
	1784	};
	1785
	1786	// C++ wrapper for IfcSurfaceOfRevolution
	1787	struct IfcSurfaceOfRevolution : IfcSweptSurface, ObjectHelper<IfcSurfaceOfRevolution,1> { IfcSurfaceOfRevolution() : Object("IfcSurfaceOfRevolution") {}
	1788	Lazy< IfcAxis1Placement > AxisPosition;
	1789	};
	1790
	1791	// C++ wrapper for IfcOrientedEdge
	1792	struct IfcOrientedEdge : IfcEdge, ObjectHelper<IfcOrientedEdge,2> { IfcOrientedEdge() : Object("IfcOrientedEdge") {}
	1793	Lazy< IfcEdge > EdgeElement;
	1794	BOOLEAN::Out Orientation;
	1795	};
	1796
	1797	// C++ wrapper for IfcDirection
	1798	struct IfcDirection : IfcGeometricRepresentationItem, ObjectHelper<IfcDirection,1> { IfcDirection() : Object("IfcDirection") {}
	1799	ListOf< REAL, 2, 3 >::Out DirectionRatios;
	1800	};
	1801
	1802	// C++ wrapper for IfcProfileDef
	1803	struct IfcProfileDef : ObjectHelper<IfcProfileDef,2> { IfcProfileDef() : Object("IfcProfileDef") {}
	1804	IfcProfileTypeEnum::Out ProfileType;
	1805	Maybe< IfcLabel::Out > ProfileName;
	1806	};
	1807
	1808	// C++ wrapper for IfcParameterizedProfileDef
	1809	struct IfcParameterizedProfileDef : IfcProfileDef, ObjectHelper<IfcParameterizedProfileDef,1> { IfcParameterizedProfileDef() : Object("IfcParameterizedProfileDef") {}
	1810	Lazy< IfcAxis2Placement2D > Position;
	1811	};
	1812
	1813	// C++ wrapper for IfcCShapeProfileDef
	1814	struct IfcCShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcCShapeProfileDef,6> { IfcCShapeProfileDef() : Object("IfcCShapeProfileDef") {}
	1815	IfcPositiveLengthMeasure::Out Depth;
	1816	IfcPositiveLengthMeasure::Out Width;
	1817	IfcPositiveLengthMeasure::Out WallThickness;
	1818	IfcPositiveLengthMeasure::Out Girth;
	1819	Maybe< IfcPositiveLengthMeasure::Out > InternalFilletRadius;
	1820	Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInX;
	1821	};
	1822
	1823	// C++ wrapper for IfcFeatureElement
	1824	struct IfcFeatureElement : IfcElement, ObjectHelper<IfcFeatureElement,0> { IfcFeatureElement() : Object("IfcFeatureElement") {}
	1825
	1826	};
	1827
	1828	// C++ wrapper for IfcFeatureElementSubtraction
	1829	struct IfcFeatureElementSubtraction : IfcFeatureElement, ObjectHelper<IfcFeatureElementSubtraction,0> { IfcFeatureElementSubtraction() : Object("IfcFeatureElementSubtraction") {}
	1830
	1831	};
	1832
	1833	// C++ wrapper for IfcEdgeFeature
	1834	struct IfcEdgeFeature : IfcFeatureElementSubtraction, ObjectHelper<IfcEdgeFeature,1> { IfcEdgeFeature() : Object("IfcEdgeFeature") {}
	1835	Maybe< IfcPositiveLengthMeasure::Out > FeatureLength;
	1836	};
	1837
	1838	// C++ wrapper for IfcChamferEdgeFeature
	1839	struct IfcChamferEdgeFeature : IfcEdgeFeature, ObjectHelper<IfcChamferEdgeFeature,2> { IfcChamferEdgeFeature() : Object("IfcChamferEdgeFeature") {}
	1840	Maybe< IfcPositiveLengthMeasure::Out > Width;
	1841	Maybe< IfcPositiveLengthMeasure::Out > Height;
	1842	};
	1843
	1844	// C++ wrapper for IfcBuildingElement
	1845	struct IfcBuildingElement : IfcElement, ObjectHelper<IfcBuildingElement,0> { IfcBuildingElement() : Object("IfcBuildingElement") {}
	1846
	1847	};
	1848
	1849	// C++ wrapper for IfcColumn
	1850	struct IfcColumn : IfcBuildingElement, ObjectHelper<IfcColumn,0> { IfcColumn() : Object("IfcColumn") {}
	1851
	1852	};
	1853
	1854	// C++ wrapper for IfcPropertyReferenceValue
	1855	struct IfcPropertyReferenceValue : IfcSimpleProperty, ObjectHelper<IfcPropertyReferenceValue,2> { IfcPropertyReferenceValue() : Object("IfcPropertyReferenceValue") {}
	1856	Maybe< IfcLabel::Out > UsageName;
	1857	IfcObjectReferenceSelect::Out PropertyReference;
	1858	};
	1859
	1860	// C++ wrapper for IfcElectricMotorType
	1861	struct IfcElectricMotorType : IfcEnergyConversionDeviceType, ObjectHelper<IfcElectricMotorType,1> { IfcElectricMotorType() : Object("IfcElectricMotorType") {}
	1862	IfcElectricMotorTypeEnum::Out PredefinedType;
	1863	};
	1864
	1865	// C++ wrapper for IfcSpatialStructureElementType
	1866	struct IfcSpatialStructureElementType : IfcElementType, ObjectHelper<IfcSpatialStructureElementType,0> { IfcSpatialStructureElementType() : Object("IfcSpatialStructureElementType") {}
	1867
	1868	};
	1869
	1870	// C++ wrapper for IfcSpaceType
	1871	struct IfcSpaceType : IfcSpatialStructureElementType, ObjectHelper<IfcSpaceType,1> { IfcSpaceType() : Object("IfcSpaceType") {}
	1872	IfcSpaceTypeEnum::Out PredefinedType;
	1873	};
	1874
	1875	// C++ wrapper for IfcColumnType
	1876	struct IfcColumnType : IfcBuildingElementType, ObjectHelper<IfcColumnType,1> { IfcColumnType() : Object("IfcColumnType") {}
	1877	IfcColumnTypeEnum::Out PredefinedType;
	1878	};
	1879
	1880	// C++ wrapper for IfcCraneRailAShapeProfileDef
	1881	struct IfcCraneRailAShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcCraneRailAShapeProfileDef,12> { IfcCraneRailAShapeProfileDef() : Object("IfcCraneRailAShapeProfileDef") {}
	1882	IfcPositiveLengthMeasure::Out OverallHeight;
	1883	IfcPositiveLengthMeasure::Out BaseWidth2;
	1884	Maybe< IfcPositiveLengthMeasure::Out > Radius;
	1885	IfcPositiveLengthMeasure::Out HeadWidth;
	1886	IfcPositiveLengthMeasure::Out HeadDepth2;
	1887	IfcPositiveLengthMeasure::Out HeadDepth3;
	1888	IfcPositiveLengthMeasure::Out WebThickness;
	1889	IfcPositiveLengthMeasure::Out BaseWidth4;
	1890	IfcPositiveLengthMeasure::Out BaseDepth1;
	1891	IfcPositiveLengthMeasure::Out BaseDepth2;
	1892	IfcPositiveLengthMeasure::Out BaseDepth3;
	1893	Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY;
	1894	};
	1895
	1896	// C++ wrapper for IfcCondenserType
	1897	struct IfcCondenserType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCondenserType,1> { IfcCondenserType() : Object("IfcCondenserType") {}
	1898	IfcCondenserTypeEnum::Out PredefinedType;
2270	1899	};
2271	1900
2272	1901	// C++ wrapper for IfcCircleProfileDef

2274	1903	IfcPositiveLengthMeasure::Out Radius;
2275	1904	};
2276	1905
2277		// C++ wrapper for IfcStructuralReaction
2278		struct IfcStructuralReaction : IfcStructuralActivity, ObjectHelper<IfcStructuralReaction,0> { IfcStructuralReaction() : Object("IfcStructuralReaction") {}
2279
2280		};
2281
2282		// C++ wrapper for IfcStructuralPointReaction
2283		struct IfcStructuralPointReaction : IfcStructuralReaction, ObjectHelper<IfcStructuralPointReaction,0> { IfcStructuralPointReaction() : Object("IfcStructuralPointReaction") {}
2284
	1906	// C++ wrapper for IfcCircleHollowProfileDef
	1907	struct IfcCircleHollowProfileDef : IfcCircleProfileDef, ObjectHelper<IfcCircleHollowProfileDef,1> { IfcCircleHollowProfileDef() : Object("IfcCircleHollowProfileDef") {}
	1908	IfcPositiveLengthMeasure::Out WallThickness;
	1909	};
	1910
	1911	// C++ wrapper for IfcPlacement
	1912	struct IfcPlacement : IfcGeometricRepresentationItem, ObjectHelper<IfcPlacement,1> { IfcPlacement() : Object("IfcPlacement") {}
	1913	Lazy< IfcCartesianPoint > Location;
	1914	};
	1915
	1916	// C++ wrapper for IfcAxis2Placement3D
	1917	struct IfcAxis2Placement3D : IfcPlacement, ObjectHelper<IfcAxis2Placement3D,2> { IfcAxis2Placement3D() : Object("IfcAxis2Placement3D") {}
	1918	Maybe< Lazy< IfcDirection > > Axis;
	1919	Maybe< Lazy< IfcDirection > > RefDirection;
	1920	};
	1921
	1922	// C++ wrapper for IfcPresentationStyle
	1923	struct IfcPresentationStyle : ObjectHelper<IfcPresentationStyle,1> { IfcPresentationStyle() : Object("IfcPresentationStyle") {}
	1924	Maybe< IfcLabel::Out > Name;
	1925	};
	1926
	1927	// C++ wrapper for IfcEquipmentElement
	1928	struct IfcEquipmentElement : IfcElement, ObjectHelper<IfcEquipmentElement,0> { IfcEquipmentElement() : Object("IfcEquipmentElement") {}
	1929
	1930	};
	1931
	1932	// C++ wrapper for IfcCompositeCurveSegment
	1933	struct IfcCompositeCurveSegment : IfcGeometricRepresentationItem, ObjectHelper<IfcCompositeCurveSegment,3> { IfcCompositeCurveSegment() : Object("IfcCompositeCurveSegment") {}
	1934	IfcTransitionCode::Out Transition;
	1935	BOOLEAN::Out SameSense;
	1936	Lazy< IfcCurve > ParentCurve;
	1937	};
	1938
	1939	// C++ wrapper for IfcRectangleProfileDef
	1940	struct IfcRectangleProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcRectangleProfileDef,2> { IfcRectangleProfileDef() : Object("IfcRectangleProfileDef") {}
	1941	IfcPositiveLengthMeasure::Out XDim;
	1942	IfcPositiveLengthMeasure::Out YDim;
	1943	};
	1944
	1945	// C++ wrapper for IfcBuildingElementProxy
	1946	struct IfcBuildingElementProxy : IfcBuildingElement, ObjectHelper<IfcBuildingElementProxy,1> { IfcBuildingElementProxy() : Object("IfcBuildingElementProxy") {}
	1947	Maybe< IfcElementCompositionEnum::Out > CompositionType;
	1948	};
	1949
	1950	// C++ wrapper for IfcDistributionControlElementType
	1951	struct IfcDistributionControlElementType : IfcDistributionElementType, ObjectHelper<IfcDistributionControlElementType,0> { IfcDistributionControlElementType() : Object("IfcDistributionControlElementType") {}
	1952
	1953	};
	1954
	1955	// C++ wrapper for IfcFlowInstrumentType
	1956	struct IfcFlowInstrumentType : IfcDistributionControlElementType, ObjectHelper<IfcFlowInstrumentType,1> { IfcFlowInstrumentType() : Object("IfcFlowInstrumentType") {}
	1957	IfcFlowInstrumentTypeEnum::Out PredefinedType;
	1958	};
	1959
	1960	// C++ wrapper for IfcDraughtingCallout
	1961	struct IfcDraughtingCallout : IfcGeometricRepresentationItem, ObjectHelper<IfcDraughtingCallout,1> { IfcDraughtingCallout() : Object("IfcDraughtingCallout") {}
	1962	ListOf< IfcDraughtingCalloutElement, 1, 0 >::Out Contents;
	1963	};
	1964
	1965	// C++ wrapper for IfcDimensionCurveDirectedCallout
	1966	struct IfcDimensionCurveDirectedCallout : IfcDraughtingCallout, ObjectHelper<IfcDimensionCurveDirectedCallout,0> { IfcDimensionCurveDirectedCallout() : Object("IfcDimensionCurveDirectedCallout") {}
	1967
	1968	};
	1969
	1970	// C++ wrapper for IfcLinearDimension
	1971	struct IfcLinearDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcLinearDimension,0> { IfcLinearDimension() : Object("IfcLinearDimension") {}
	1972
	1973	};
	1974
	1975	// C++ wrapper for IfcElementAssembly
	1976	struct IfcElementAssembly : IfcElement, ObjectHelper<IfcElementAssembly,2> { IfcElementAssembly() : Object("IfcElementAssembly") {}
	1977	Maybe< IfcAssemblyPlaceEnum::Out > AssemblyPlace;
	1978	IfcElementAssemblyTypeEnum::Out PredefinedType;
	1979	};
	1980
	1981	// C++ wrapper for IfcCsgPrimitive3D
	1982	struct IfcCsgPrimitive3D : IfcGeometricRepresentationItem, ObjectHelper<IfcCsgPrimitive3D,1> { IfcCsgPrimitive3D() : Object("IfcCsgPrimitive3D") {}
	1983	Lazy< IfcAxis2Placement3D > Position;
	1984	};
	1985
	1986	// C++ wrapper for IfcRightCircularCone
	1987	struct IfcRightCircularCone : IfcCsgPrimitive3D, ObjectHelper<IfcRightCircularCone,2> { IfcRightCircularCone() : Object("IfcRightCircularCone") {}
	1988	IfcPositiveLengthMeasure::Out Height;
	1989	IfcPositiveLengthMeasure::Out BottomRadius;
	1990	};
	1991
	1992	// C++ wrapper for IfcProjectOrder
	1993	struct IfcProjectOrder : IfcControl, ObjectHelper<IfcProjectOrder,3> { IfcProjectOrder() : Object("IfcProjectOrder") {}
	1994	IfcIdentifier::Out ID;
	1995	IfcProjectOrderTypeEnum::Out PredefinedType;
	1996	Maybe< IfcLabel::Out > Status;
	1997	};
	1998
	1999	// C++ wrapper for IfcLShapeProfileDef
	2000	struct IfcLShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcLShapeProfileDef,8> { IfcLShapeProfileDef() : Object("IfcLShapeProfileDef") {}
	2001	IfcPositiveLengthMeasure::Out Depth;
	2002	Maybe< IfcPositiveLengthMeasure::Out > Width;
	2003	IfcPositiveLengthMeasure::Out Thickness;
	2004	Maybe< IfcPositiveLengthMeasure::Out > FilletRadius;
	2005	Maybe< IfcPositiveLengthMeasure::Out > EdgeRadius;
	2006	Maybe< IfcPlaneAngleMeasure::Out > LegSlope;
	2007	Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInX;
	2008	Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY;
	2009	};
	2010
	2011	// C++ wrapper for IfcAngularDimension
	2012	struct IfcAngularDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcAngularDimension,0> { IfcAngularDimension() : Object("IfcAngularDimension") {}
	2013
	2014	};
	2015
	2016	// C++ wrapper for IfcLocalPlacement
	2017	struct IfcLocalPlacement : IfcObjectPlacement, ObjectHelper<IfcLocalPlacement,2> { IfcLocalPlacement() : Object("IfcLocalPlacement") {}
	2018	Maybe< Lazy< IfcObjectPlacement > > PlacementRelTo;
	2019	IfcAxis2Placement::Out RelativePlacement;
	2020	};
	2021
	2022	// C++ wrapper for IfcSweptAreaSolid
	2023	struct IfcSweptAreaSolid : IfcSolidModel, ObjectHelper<IfcSweptAreaSolid,2> { IfcSweptAreaSolid() : Object("IfcSweptAreaSolid") {}
	2024	Lazy< IfcProfileDef > SweptArea;
	2025	Lazy< IfcAxis2Placement3D > Position;
	2026	};
	2027
	2028	// C++ wrapper for IfcRevolvedAreaSolid
	2029	struct IfcRevolvedAreaSolid : IfcSweptAreaSolid, ObjectHelper<IfcRevolvedAreaSolid,2> { IfcRevolvedAreaSolid() : Object("IfcRevolvedAreaSolid") {}
	2030	Lazy< IfcAxis1Placement > Axis;
	2031	IfcPlaneAngleMeasure::Out Angle;
	2032	};
	2033
	2034	// C++ wrapper for IfcStructuralSurfaceConnection
	2035	struct IfcStructuralSurfaceConnection : IfcStructuralConnection, ObjectHelper<IfcStructuralSurfaceConnection,0> { IfcStructuralSurfaceConnection() : Object("IfcStructuralSurfaceConnection") {}
	2036
	2037	};
	2038
	2039	// C++ wrapper for IfcRadiusDimension
	2040	struct IfcRadiusDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcRadiusDimension,0> { IfcRadiusDimension() : Object("IfcRadiusDimension") {}
	2041
	2042	};
	2043
	2044	// C++ wrapper for IfcSweptDiskSolid
	2045	struct IfcSweptDiskSolid : IfcSolidModel, ObjectHelper<IfcSweptDiskSolid,5> { IfcSweptDiskSolid() : Object("IfcSweptDiskSolid") {}
	2046	Lazy< IfcCurve > Directrix;
	2047	IfcPositiveLengthMeasure::Out Radius;
	2048	Maybe< IfcPositiveLengthMeasure::Out > InnerRadius;
	2049	IfcParameterValue::Out StartParam;
	2050	IfcParameterValue::Out EndParam;
	2051	};
	2052
	2053	// C++ wrapper for IfcHalfSpaceSolid
	2054	struct IfcHalfSpaceSolid : IfcGeometricRepresentationItem, ObjectHelper<IfcHalfSpaceSolid,2> { IfcHalfSpaceSolid() : Object("IfcHalfSpaceSolid") {}
	2055	Lazy< IfcSurface > BaseSurface;
	2056	BOOLEAN::Out AgreementFlag;
	2057	};
	2058
	2059	// C++ wrapper for IfcPolygonalBoundedHalfSpace
	2060	struct IfcPolygonalBoundedHalfSpace : IfcHalfSpaceSolid, ObjectHelper<IfcPolygonalBoundedHalfSpace,2> { IfcPolygonalBoundedHalfSpace() : Object("IfcPolygonalBoundedHalfSpace") {}
	2061	Lazy< IfcAxis2Placement3D > Position;
	2062	Lazy< IfcBoundedCurve > PolygonalBoundary;
	2063	};
	2064
	2065	// C++ wrapper for IfcTimeSeriesSchedule
	2066	struct IfcTimeSeriesSchedule : IfcControl, ObjectHelper<IfcTimeSeriesSchedule,3> { IfcTimeSeriesSchedule() : Object("IfcTimeSeriesSchedule") {}
	2067	Maybe< ListOf< IfcDateTimeSelect, 1, 0 >::Out > ApplicableDates;
	2068	IfcTimeSeriesScheduleTypeEnum::Out TimeSeriesScheduleType;
	2069	Lazy< NotImplemented > TimeSeries;
	2070	};
	2071
	2072	// C++ wrapper for IfcCooledBeamType
	2073	struct IfcCooledBeamType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCooledBeamType,1> { IfcCooledBeamType() : Object("IfcCooledBeamType") {}
	2074	IfcCooledBeamTypeEnum::Out PredefinedType;
	2075	};
	2076
	2077	// C++ wrapper for IfcProject
	2078	struct IfcProject : IfcObject, ObjectHelper<IfcProject,4> { IfcProject() : Object("IfcProject") {}
	2079	Maybe< IfcLabel::Out > LongName;
	2080	Maybe< IfcLabel::Out > Phase;
	2081	ListOf< Lazy< IfcRepresentationContext >, 1, 0 > RepresentationContexts;
	2082	Lazy< IfcUnitAssignment > UnitsInContext;
	2083	};
	2084
	2085	// C++ wrapper for IfcEvaporatorType
	2086	struct IfcEvaporatorType : IfcEnergyConversionDeviceType, ObjectHelper<IfcEvaporatorType,1> { IfcEvaporatorType() : Object("IfcEvaporatorType") {}
	2087	IfcEvaporatorTypeEnum::Out PredefinedType;
	2088	};
	2089
	2090	// C++ wrapper for IfcLaborResource
	2091	struct IfcLaborResource : IfcConstructionResource, ObjectHelper<IfcLaborResource,1> { IfcLaborResource() : Object("IfcLaborResource") {}
	2092	Maybe< IfcText::Out > SkillSet;
	2093	};
	2094
	2095	// C++ wrapper for IfcPropertyBoundedValue
	2096	struct IfcPropertyBoundedValue : IfcSimpleProperty, ObjectHelper<IfcPropertyBoundedValue,3> { IfcPropertyBoundedValue() : Object("IfcPropertyBoundedValue") {}
	2097	Maybe< IfcValue::Out > UpperBoundValue;
	2098	Maybe< IfcValue::Out > LowerBoundValue;
	2099	Maybe< IfcUnit::Out > Unit;
	2100	};
	2101
	2102	// C++ wrapper for IfcRampFlightType
	2103	struct IfcRampFlightType : IfcBuildingElementType, ObjectHelper<IfcRampFlightType,1> { IfcRampFlightType() : Object("IfcRampFlightType") {}
	2104	IfcRampFlightTypeEnum::Out PredefinedType;
	2105	};
	2106
	2107	// C++ wrapper for IfcMember
	2108	struct IfcMember : IfcBuildingElement, ObjectHelper<IfcMember,0> { IfcMember() : Object("IfcMember") {}
	2109
	2110	};
	2111
	2112	// C++ wrapper for IfcTubeBundleType
	2113	struct IfcTubeBundleType : IfcEnergyConversionDeviceType, ObjectHelper<IfcTubeBundleType,1> { IfcTubeBundleType() : Object("IfcTubeBundleType") {}
	2114	IfcTubeBundleTypeEnum::Out PredefinedType;
	2115	};
	2116
	2117	// C++ wrapper for IfcValveType
	2118	struct IfcValveType : IfcFlowControllerType, ObjectHelper<IfcValveType,1> { IfcValveType() : Object("IfcValveType") {}
	2119	IfcValveTypeEnum::Out PredefinedType;
	2120	};
	2121
	2122	// C++ wrapper for IfcTrimmedCurve
	2123	struct IfcTrimmedCurve : IfcBoundedCurve, ObjectHelper<IfcTrimmedCurve,5> { IfcTrimmedCurve() : Object("IfcTrimmedCurve") {}
	2124	Lazy< IfcCurve > BasisCurve;
	2125	ListOf< IfcTrimmingSelect, 1, 2 >::Out Trim1;
	2126	ListOf< IfcTrimmingSelect, 1, 2 >::Out Trim2;
	2127	BOOLEAN::Out SenseAgreement;
	2128	IfcTrimmingPreference::Out MasterRepresentation;
	2129	};
	2130
	2131	// C++ wrapper for IfcRelDefines
	2132	struct IfcRelDefines : IfcRelationship, ObjectHelper<IfcRelDefines,1> { IfcRelDefines() : Object("IfcRelDefines") {}
	2133	ListOf< Lazy< IfcObject >, 1, 0 > RelatedObjects;
	2134	};
	2135
	2136	// C++ wrapper for IfcRelDefinesByProperties
	2137	struct IfcRelDefinesByProperties : IfcRelDefines, ObjectHelper<IfcRelDefinesByProperties,1> { IfcRelDefinesByProperties() : Object("IfcRelDefinesByProperties") {}
	2138	Lazy< IfcPropertySetDefinition > RelatingPropertyDefinition;
	2139	};
	2140
	2141	// C++ wrapper for IfcActor
	2142	struct IfcActor : IfcObject, ObjectHelper<IfcActor,1> { IfcActor() : Object("IfcActor") {}
	2143	IfcActorSelect::Out TheActor;
	2144	};
	2145
	2146	// C++ wrapper for IfcOccupant
	2147	struct IfcOccupant : IfcActor, ObjectHelper<IfcOccupant,1> { IfcOccupant() : Object("IfcOccupant") {}
	2148	IfcOccupantTypeEnum::Out PredefinedType;
	2149	};
	2150
	2151	// C++ wrapper for IfcHumidifierType
	2152	struct IfcHumidifierType : IfcEnergyConversionDeviceType, ObjectHelper<IfcHumidifierType,1> { IfcHumidifierType() : Object("IfcHumidifierType") {}
	2153	IfcHumidifierTypeEnum::Out PredefinedType;
	2154	};
	2155
	2156	// C++ wrapper for IfcArbitraryOpenProfileDef
	2157	struct IfcArbitraryOpenProfileDef : IfcProfileDef, ObjectHelper<IfcArbitraryOpenProfileDef,1> { IfcArbitraryOpenProfileDef() : Object("IfcArbitraryOpenProfileDef") {}
	2158	Lazy< IfcBoundedCurve > Curve;
	2159	};
	2160
	2161	// C++ wrapper for IfcPermit
	2162	struct IfcPermit : IfcControl, ObjectHelper<IfcPermit,1> { IfcPermit() : Object("IfcPermit") {}
	2163	IfcIdentifier::Out PermitID;
	2164	};
	2165
	2166	// C++ wrapper for IfcOffsetCurve3D
	2167	struct IfcOffsetCurve3D : IfcCurve, ObjectHelper<IfcOffsetCurve3D,4> { IfcOffsetCurve3D() : Object("IfcOffsetCurve3D") {}
	2168	Lazy< IfcCurve > BasisCurve;
	2169	IfcLengthMeasure::Out Distance;
	2170	LOGICAL::Out SelfIntersect;
	2171	Lazy< IfcDirection > RefDirection;
	2172	};
	2173
	2174	// C++ wrapper for IfcLightSource
	2175	struct IfcLightSource : IfcGeometricRepresentationItem, ObjectHelper<IfcLightSource,4> { IfcLightSource() : Object("IfcLightSource") {}
	2176	Maybe< IfcLabel::Out > Name;
	2177	Lazy< IfcColourRgb > LightColour;
	2178	Maybe< IfcNormalisedRatioMeasure::Out > AmbientIntensity;
	2179	Maybe< IfcNormalisedRatioMeasure::Out > Intensity;
	2180	};
	2181
	2182	// C++ wrapper for IfcLightSourcePositional
	2183	struct IfcLightSourcePositional : IfcLightSource, ObjectHelper<IfcLightSourcePositional,5> { IfcLightSourcePositional() : Object("IfcLightSourcePositional") {}
	2184	Lazy< IfcCartesianPoint > Position;
	2185	IfcPositiveLengthMeasure::Out Radius;
	2186	IfcReal::Out ConstantAttenuation;
	2187	IfcReal::Out DistanceAttenuation;
	2188	IfcReal::Out QuadricAttenuation;
	2189	};
	2190
	2191	// C++ wrapper for IfcCompositeProfileDef
	2192	struct IfcCompositeProfileDef : IfcProfileDef, ObjectHelper<IfcCompositeProfileDef,2> { IfcCompositeProfileDef() : Object("IfcCompositeProfileDef") {}
	2193	ListOf< Lazy< IfcProfileDef >, 2, 0 > Profiles;
	2194	Maybe< IfcLabel::Out > Label;
	2195	};
	2196
	2197	// C++ wrapper for IfcRamp
	2198	struct IfcRamp : IfcBuildingElement, ObjectHelper<IfcRamp,1> { IfcRamp() : Object("IfcRamp") {}
	2199	IfcRampTypeEnum::Out ShapeType;
	2200	};
	2201
	2202	// C++ wrapper for IfcFlowMovingDevice
	2203	struct IfcFlowMovingDevice : IfcDistributionFlowElement, ObjectHelper<IfcFlowMovingDevice,0> { IfcFlowMovingDevice() : Object("IfcFlowMovingDevice") {}
	2204
	2205	};
	2206
	2207	// C++ wrapper for IfcSpaceHeaterType
	2208	struct IfcSpaceHeaterType : IfcEnergyConversionDeviceType, ObjectHelper<IfcSpaceHeaterType,1> { IfcSpaceHeaterType() : Object("IfcSpaceHeaterType") {}
	2209	IfcSpaceHeaterTypeEnum::Out PredefinedType;
	2210	};
	2211
	2212	// C++ wrapper for IfcLampType
	2213	struct IfcLampType : IfcFlowTerminalType, ObjectHelper<IfcLampType,1> { IfcLampType() : Object("IfcLampType") {}
	2214	IfcLampTypeEnum::Out PredefinedType;
	2215	};
	2216
	2217	// C++ wrapper for IfcBuildingElementComponent
	2218	struct IfcBuildingElementComponent : IfcBuildingElement, ObjectHelper<IfcBuildingElementComponent,0> { IfcBuildingElementComponent() : Object("IfcBuildingElementComponent") {}
	2219
	2220	};
	2221
	2222	// C++ wrapper for IfcReinforcingElement
	2223	struct IfcReinforcingElement : IfcBuildingElementComponent, ObjectHelper<IfcReinforcingElement,1> { IfcReinforcingElement() : Object("IfcReinforcingElement") {}
	2224	Maybe< IfcLabel::Out > SteelGrade;
	2225	};
	2226
	2227	// C++ wrapper for IfcReinforcingBar
	2228	struct IfcReinforcingBar : IfcReinforcingElement, ObjectHelper<IfcReinforcingBar,5> { IfcReinforcingBar() : Object("IfcReinforcingBar") {}
	2229	IfcPositiveLengthMeasure::Out NominalDiameter;
	2230	IfcAreaMeasure::Out CrossSectionArea;
	2231	Maybe< IfcPositiveLengthMeasure::Out > BarLength;
	2232	IfcReinforcingBarRoleEnum::Out BarRole;
	2233	Maybe< IfcReinforcingBarSurfaceEnum::Out > BarSurface;
	2234	};
	2235
	2236	// C++ wrapper for IfcElectricHeaterType
	2237	struct IfcElectricHeaterType : IfcFlowTerminalType, ObjectHelper<IfcElectricHeaterType,1> { IfcElectricHeaterType() : Object("IfcElectricHeaterType") {}
	2238	IfcElectricHeaterTypeEnum::Out PredefinedType;
	2239	};
	2240
	2241	// C++ wrapper for IfcTShapeProfileDef
	2242	struct IfcTShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcTShapeProfileDef,10> { IfcTShapeProfileDef() : Object("IfcTShapeProfileDef") {}
	2243	IfcPositiveLengthMeasure::Out Depth;
	2244	IfcPositiveLengthMeasure::Out FlangeWidth;
	2245	IfcPositiveLengthMeasure::Out WebThickness;
	2246	IfcPositiveLengthMeasure::Out FlangeThickness;
	2247	Maybe< IfcPositiveLengthMeasure::Out > FilletRadius;
	2248	Maybe< IfcPositiveLengthMeasure::Out > FlangeEdgeRadius;
	2249	Maybe< IfcPositiveLengthMeasure::Out > WebEdgeRadius;
	2250	Maybe< IfcPlaneAngleMeasure::Out > WebSlope;
	2251	Maybe< IfcPlaneAngleMeasure::Out > FlangeSlope;
	2252	Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY;
	2253	};
	2254
	2255	// C++ wrapper for IfcStructuralActivity
	2256	struct IfcStructuralActivity : IfcProduct, ObjectHelper<IfcStructuralActivity,2> { IfcStructuralActivity() : Object("IfcStructuralActivity") {}
	2257	Lazy< NotImplemented > AppliedLoad;
	2258	IfcGlobalOrLocalEnum::Out GlobalOrLocal;
	2259	};
	2260
	2261	// C++ wrapper for IfcStructuralAction
	2262	struct IfcStructuralAction : IfcStructuralActivity, ObjectHelper<IfcStructuralAction,2> { IfcStructuralAction() : Object("IfcStructuralAction") {}
	2263	BOOLEAN::Out DestabilizingLoad;
	2264	Maybe< Lazy< IfcStructuralReaction > > CausedBy;
	2265	};
	2266
	2267	// C++ wrapper for IfcDuctFittingType
	2268	struct IfcDuctFittingType : IfcFlowFittingType, ObjectHelper<IfcDuctFittingType,1> { IfcDuctFittingType() : Object("IfcDuctFittingType") {}
	2269	IfcDuctFittingTypeEnum::Out PredefinedType;
	2270	};
	2271
	2272	// C++ wrapper for IfcCartesianTransformationOperator2D
	2273	struct IfcCartesianTransformationOperator2D : IfcCartesianTransformationOperator, ObjectHelper<IfcCartesianTransformationOperator2D,0> { IfcCartesianTransformationOperator2D() : Object("IfcCartesianTransformationOperator2D") {}
	2274
	2275	};
	2276
	2277	// C++ wrapper for IfcCartesianTransformationOperator2DnonUniform
	2278	struct IfcCartesianTransformationOperator2DnonUniform : IfcCartesianTransformationOperator2D, ObjectHelper<IfcCartesianTransformationOperator2DnonUniform,1> { IfcCartesianTransformationOperator2DnonUniform() : Object("IfcCartesianTransformationOperator2DnonUniform") {}
	2279	Maybe< REAL::Out > Scale2;
	2280	};
	2281
	2282	// C++ wrapper for IfcVirtualElement
	2283	struct IfcVirtualElement : IfcElement, ObjectHelper<IfcVirtualElement,0> { IfcVirtualElement() : Object("IfcVirtualElement") {}
	2284
	2285	};
	2286
	2287	// C++ wrapper for IfcRightCircularCylinder
	2288	struct IfcRightCircularCylinder : IfcCsgPrimitive3D, ObjectHelper<IfcRightCircularCylinder,2> { IfcRightCircularCylinder() : Object("IfcRightCircularCylinder") {}
	2289	IfcPositiveLengthMeasure::Out Height;
	2290	IfcPositiveLengthMeasure::Out Radius;
	2291	};
	2292
	2293	// C++ wrapper for IfcOutletType
	2294	struct IfcOutletType : IfcFlowTerminalType, ObjectHelper<IfcOutletType,1> { IfcOutletType() : Object("IfcOutletType") {}
	2295	IfcOutletTypeEnum::Out PredefinedType;
	2296	};
	2297
	2298	// C++ wrapper for IfcRelDecomposes
	2299	struct IfcRelDecomposes : IfcRelationship, ObjectHelper<IfcRelDecomposes,2> { IfcRelDecomposes() : Object("IfcRelDecomposes") {}
	2300	Lazy< IfcObjectDefinition > RelatingObject;
	2301	ListOf< Lazy< IfcObjectDefinition >, 1, 0 > RelatedObjects;
	2302	};
	2303
	2304	// C++ wrapper for IfcCovering
	2305	struct IfcCovering : IfcBuildingElement, ObjectHelper<IfcCovering,1> { IfcCovering() : Object("IfcCovering") {}
	2306	Maybe< IfcCoveringTypeEnum::Out > PredefinedType;
	2307	};
	2308
	2309	// C++ wrapper for IfcPolyline
	2310	struct IfcPolyline : IfcBoundedCurve, ObjectHelper<IfcPolyline,1> { IfcPolyline() : Object("IfcPolyline") {}
	2311	ListOf< Lazy< IfcCartesianPoint >, 2, 0 > Points;
	2312	};
	2313
	2314	// C++ wrapper for IfcPath
	2315	struct IfcPath : IfcTopologicalRepresentationItem, ObjectHelper<IfcPath,1> { IfcPath() : Object("IfcPath") {}
	2316	ListOf< Lazy< IfcOrientedEdge >, 1, 0 > EdgeList;
	2317	};
	2318
	2319	// C++ wrapper for IfcElementComponent
	2320	struct IfcElementComponent : IfcElement, ObjectHelper<IfcElementComponent,0> { IfcElementComponent() : Object("IfcElementComponent") {}
	2321
	2322	};
	2323
	2324	// C++ wrapper for IfcFastener
	2325	struct IfcFastener : IfcElementComponent, ObjectHelper<IfcFastener,0> { IfcFastener() : Object("IfcFastener") {}
	2326
	2327	};
	2328
	2329	// C++ wrapper for IfcMappedItem
	2330	struct IfcMappedItem : IfcRepresentationItem, ObjectHelper<IfcMappedItem,2> { IfcMappedItem() : Object("IfcMappedItem") {}
	2331	Lazy< IfcRepresentationMap > MappingSource;
	2332	Lazy< IfcCartesianTransformationOperator > MappingTarget;
	2333	};
	2334
	2335	// C++ wrapper for IfcRectangularPyramid
	2336	struct IfcRectangularPyramid : IfcCsgPrimitive3D, ObjectHelper<IfcRectangularPyramid,3> { IfcRectangularPyramid() : Object("IfcRectangularPyramid") {}
	2337	IfcPositiveLengthMeasure::Out XLength;
	2338	IfcPositiveLengthMeasure::Out YLength;
	2339	IfcPositiveLengthMeasure::Out Height;
	2340	};
	2341
	2342	// C++ wrapper for IfcCrewResource
	2343	struct IfcCrewResource : IfcConstructionResource, ObjectHelper<IfcCrewResource,0> { IfcCrewResource() : Object("IfcCrewResource") {}
	2344
	2345	};
	2346
	2347	// C++ wrapper for IfcNamedUnit
	2348	struct IfcNamedUnit : ObjectHelper<IfcNamedUnit,2> { IfcNamedUnit() : Object("IfcNamedUnit") {}
	2349	Lazy< NotImplemented > Dimensions;
	2350	IfcUnitEnum::Out UnitType;
	2351	};
	2352
	2353	// C++ wrapper for IfcContextDependentUnit
	2354	struct IfcContextDependentUnit : IfcNamedUnit, ObjectHelper<IfcContextDependentUnit,1> { IfcContextDependentUnit() : Object("IfcContextDependentUnit") {}
	2355	IfcLabel::Out Name;
	2356	};
	2357
	2358	// C++ wrapper for IfcUnitaryEquipmentType
	2359	struct IfcUnitaryEquipmentType : IfcEnergyConversionDeviceType, ObjectHelper<IfcUnitaryEquipmentType,1> { IfcUnitaryEquipmentType() : Object("IfcUnitaryEquipmentType") {}
	2360	IfcUnitaryEquipmentTypeEnum::Out PredefinedType;
	2361	};
	2362
	2363	// C++ wrapper for IfcRoof
	2364	struct IfcRoof : IfcBuildingElement, ObjectHelper<IfcRoof,1> { IfcRoof() : Object("IfcRoof") {}
	2365	IfcRoofTypeEnum::Out ShapeType;
	2366	};
	2367
	2368	// C++ wrapper for IfcStructuralMember
	2369	struct IfcStructuralMember : IfcStructuralItem, ObjectHelper<IfcStructuralMember,0> { IfcStructuralMember() : Object("IfcStructuralMember") {}
	2370
	2371	};
	2372
	2373	// C++ wrapper for IfcStyleModel
	2374	struct IfcStyleModel : IfcRepresentation, ObjectHelper<IfcStyleModel,0> { IfcStyleModel() : Object("IfcStyleModel") {}
	2375
	2376	};
	2377
	2378	// C++ wrapper for IfcStyledRepresentation
	2379	struct IfcStyledRepresentation : IfcStyleModel, ObjectHelper<IfcStyledRepresentation,0> { IfcStyledRepresentation() : Object("IfcStyledRepresentation") {}
	2380
	2381	};
	2382
	2383	// C++ wrapper for IfcSpatialStructureElement
	2384	struct IfcSpatialStructureElement : IfcProduct, ObjectHelper<IfcSpatialStructureElement,2> { IfcSpatialStructureElement() : Object("IfcSpatialStructureElement") {}
	2385	Maybe< IfcLabel::Out > LongName;
	2386	IfcElementCompositionEnum::Out CompositionType;
	2387	};
	2388
	2389	// C++ wrapper for IfcBuilding
	2390	struct IfcBuilding : IfcSpatialStructureElement, ObjectHelper<IfcBuilding,3> { IfcBuilding() : Object("IfcBuilding") {}
	2391	Maybe< IfcLengthMeasure::Out > ElevationOfRefHeight;
	2392	Maybe< IfcLengthMeasure::Out > ElevationOfTerrain;
	2393	Maybe< Lazy< NotImplemented > > BuildingAddress;
	2394	};
	2395
	2396	// C++ wrapper for IfcConnectedFaceSet
	2397	struct IfcConnectedFaceSet : IfcTopologicalRepresentationItem, ObjectHelper<IfcConnectedFaceSet,1> { IfcConnectedFaceSet() : Object("IfcConnectedFaceSet") {}
	2398	ListOf< Lazy< IfcFace >, 1, 0 > CfsFaces;
	2399	};
	2400
	2401	// C++ wrapper for IfcOpenShell
	2402	struct IfcOpenShell : IfcConnectedFaceSet, ObjectHelper<IfcOpenShell,0> { IfcOpenShell() : Object("IfcOpenShell") {}
	2403
	2404	};
	2405
	2406	// C++ wrapper for IfcFacetedBrep
	2407	struct IfcFacetedBrep : IfcManifoldSolidBrep, ObjectHelper<IfcFacetedBrep,0> { IfcFacetedBrep() : Object("IfcFacetedBrep") {}
	2408
	2409	};
	2410
	2411	// C++ wrapper for IfcConic
	2412	struct IfcConic : IfcCurve, ObjectHelper<IfcConic,1> { IfcConic() : Object("IfcConic") {}
	2413	IfcAxis2Placement::Out Position;
	2414	};
	2415
	2416	// C++ wrapper for IfcCoveringType
	2417	struct IfcCoveringType : IfcBuildingElementType, ObjectHelper<IfcCoveringType,1> { IfcCoveringType() : Object("IfcCoveringType") {}
	2418	IfcCoveringTypeEnum::Out PredefinedType;
	2419	};
	2420
	2421	// C++ wrapper for IfcRoundedRectangleProfileDef
	2422	struct IfcRoundedRectangleProfileDef : IfcRectangleProfileDef, ObjectHelper<IfcRoundedRectangleProfileDef,1> { IfcRoundedRectangleProfileDef() : Object("IfcRoundedRectangleProfileDef") {}
	2423	IfcPositiveLengthMeasure::Out RoundingRadius;
	2424	};
	2425
	2426	// C++ wrapper for IfcAirTerminalType
	2427	struct IfcAirTerminalType : IfcFlowTerminalType, ObjectHelper<IfcAirTerminalType,1> { IfcAirTerminalType() : Object("IfcAirTerminalType") {}
	2428	IfcAirTerminalTypeEnum::Out PredefinedType;
	2429	};
	2430
	2431	// C++ wrapper for IfcFlowMovingDeviceType
	2432	struct IfcFlowMovingDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowMovingDeviceType,0> { IfcFlowMovingDeviceType() : Object("IfcFlowMovingDeviceType") {}
	2433
	2434	};
	2435
	2436	// C++ wrapper for IfcCompressorType
	2437	struct IfcCompressorType : IfcFlowMovingDeviceType, ObjectHelper<IfcCompressorType,1> { IfcCompressorType() : Object("IfcCompressorType") {}
	2438	IfcCompressorTypeEnum::Out PredefinedType;
	2439	};
	2440
	2441	// C++ wrapper for IfcIShapeProfileDef
	2442	struct IfcIShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcIShapeProfileDef,5> { IfcIShapeProfileDef() : Object("IfcIShapeProfileDef") {}
	2443	IfcPositiveLengthMeasure::Out OverallWidth;
	2444	IfcPositiveLengthMeasure::Out OverallDepth;
	2445	IfcPositiveLengthMeasure::Out WebThickness;
	2446	IfcPositiveLengthMeasure::Out FlangeThickness;
	2447	Maybe< IfcPositiveLengthMeasure::Out > FilletRadius;
	2448	};
	2449
	2450	// C++ wrapper for IfcAsymmetricIShapeProfileDef
	2451	struct IfcAsymmetricIShapeProfileDef : IfcIShapeProfileDef, ObjectHelper<IfcAsymmetricIShapeProfileDef,4> { IfcAsymmetricIShapeProfileDef() : Object("IfcAsymmetricIShapeProfileDef") {}
	2452	IfcPositiveLengthMeasure::Out TopFlangeWidth;
	2453	Maybe< IfcPositiveLengthMeasure::Out > TopFlangeThickness;
	2454	Maybe< IfcPositiveLengthMeasure::Out > TopFlangeFilletRadius;
	2455	Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY;
	2456	};
	2457
	2458	// C++ wrapper for IfcControllerType
	2459	struct IfcControllerType : IfcDistributionControlElementType, ObjectHelper<IfcControllerType,1> { IfcControllerType() : Object("IfcControllerType") {}
	2460	IfcControllerTypeEnum::Out PredefinedType;
2285	2461	};
2286	2462
2287	2463	// C++ wrapper for IfcRailing

2289	2465	Maybe< IfcRailingTypeEnum::Out > PredefinedType;
2290	2466	};
2291	2467
2292		// C++ wrapper for IfcTextLiteral
2293		struct IfcTextLiteral : IfcGeometricRepresentationItem, ObjectHelper<IfcTextLiteral,3> { IfcTextLiteral() : Object("IfcTextLiteral") {}
2294		IfcPresentableText::Out Literal;
2295		IfcAxis2Placement::Out Placement;
2296		IfcTextPath::Out Path;
2297		};
2298
2299		// C++ wrapper for IfcCartesianTransformationOperator
2300		struct IfcCartesianTransformationOperator : IfcGeometricRepresentationItem, ObjectHelper<IfcCartesianTransformationOperator,4> { IfcCartesianTransformationOperator() : Object("IfcCartesianTransformationOperator") {}
2301		Maybe< Lazy< IfcDirection > > Axis1;
2302		Maybe< Lazy< IfcDirection > > Axis2;
2303		Lazy< IfcCartesianPoint > LocalOrigin;
2304		Maybe< REAL::Out > Scale;
2305		};
2306
2307		// C++ wrapper for IfcLinearDimension
2308		struct IfcLinearDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcLinearDimension,0> { IfcLinearDimension() : Object("IfcLinearDimension") {}
2309
2310		};
2311
2312		// C++ wrapper for IfcDamperType
2313		struct IfcDamperType : IfcFlowControllerType, ObjectHelper<IfcDamperType,1> { IfcDamperType() : Object("IfcDamperType") {}
2314		IfcDamperTypeEnum::Out PredefinedType;
2315		};
2316
2317		// C++ wrapper for IfcSIUnit
2318		struct IfcSIUnit : IfcNamedUnit, ObjectHelper<IfcSIUnit,2> { IfcSIUnit() : Object("IfcSIUnit") {}
2319		Maybe< IfcSIPrefix::Out > Prefix;
2320		IfcSIUnitName::Out Name;
2321		};
2322
2323		// C++ wrapper for IfcMeasureWithUnit
2324		struct IfcMeasureWithUnit : ObjectHelper<IfcMeasureWithUnit,2> { IfcMeasureWithUnit() : Object("IfcMeasureWithUnit") {}
2325		IfcValue::Out ValueComponent;
2326		IfcUnit::Out UnitComponent;
2327		};
2328
2329		// C++ wrapper for IfcDistributionElement
2330		struct IfcDistributionElement : IfcElement, ObjectHelper<IfcDistributionElement,0> { IfcDistributionElement() : Object("IfcDistributionElement") {}
2331
2332		};
2333
2334		// C++ wrapper for IfcDistributionControlElement
2335		struct IfcDistributionControlElement : IfcDistributionElement, ObjectHelper<IfcDistributionControlElement,1> { IfcDistributionControlElement() : Object("IfcDistributionControlElement") {}
2336		Maybe< IfcIdentifier::Out > ControlElementId;
2337		};
2338
2339		// C++ wrapper for IfcTransformerType
2340		struct IfcTransformerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcTransformerType,1> { IfcTransformerType() : Object("IfcTransformerType") {}
2341		IfcTransformerTypeEnum::Out PredefinedType;
2342		};
2343
2344		// C++ wrapper for IfcLaborResource
2345		struct IfcLaborResource : IfcConstructionResource, ObjectHelper<IfcLaborResource,1> { IfcLaborResource() : Object("IfcLaborResource") {}
2346		Maybe< IfcText::Out > SkillSet;
2347		};
2348
2349		// C++ wrapper for IfcDerivedProfileDef
2350		struct IfcDerivedProfileDef : IfcProfileDef, ObjectHelper<IfcDerivedProfileDef,3> { IfcDerivedProfileDef() : Object("IfcDerivedProfileDef") {}
2351		Lazy< IfcProfileDef > ParentProfile;
2352		Lazy< IfcCartesianTransformationOperator2D > Operator;
2353		Maybe< IfcLabel::Out > Label;
	2468	// C++ wrapper for IfcGroup
	2469	struct IfcGroup : IfcObject, ObjectHelper<IfcGroup,0> { IfcGroup() : Object("IfcGroup") {}
	2470
	2471	};
	2472
	2473	// C++ wrapper for IfcAsset
	2474	struct IfcAsset : IfcGroup, ObjectHelper<IfcAsset,9> { IfcAsset() : Object("IfcAsset") {}
	2475	IfcIdentifier::Out AssetID;
	2476	Lazy< NotImplemented > OriginalValue;
	2477	Lazy< NotImplemented > CurrentValue;
	2478	Lazy< NotImplemented > TotalReplacementCost;
	2479	IfcActorSelect::Out Owner;
	2480	IfcActorSelect::Out User;
	2481	Lazy< NotImplemented > ResponsiblePerson;
	2482	Lazy< NotImplemented > IncorporationDate;
	2483	Lazy< NotImplemented > DepreciatedValue;
	2484	};
	2485
	2486	// C++ wrapper for IfcMaterialDefinitionRepresentation
	2487	struct IfcMaterialDefinitionRepresentation : IfcProductRepresentation, ObjectHelper<IfcMaterialDefinitionRepresentation,1> { IfcMaterialDefinitionRepresentation() : Object("IfcMaterialDefinitionRepresentation") {}
	2488	Lazy< NotImplemented > RepresentedMaterial;
	2489	};
	2490
	2491	// C++ wrapper for IfcRailingType
	2492	struct IfcRailingType : IfcBuildingElementType, ObjectHelper<IfcRailingType,1> { IfcRailingType() : Object("IfcRailingType") {}
	2493	IfcRailingTypeEnum::Out PredefinedType;
	2494	};
	2495
	2496	// C++ wrapper for IfcWall
	2497	struct IfcWall : IfcBuildingElement, ObjectHelper<IfcWall,0> { IfcWall() : Object("IfcWall") {}
	2498
	2499	};
	2500
	2501	// C++ wrapper for IfcStructuralPointConnection
	2502	struct IfcStructuralPointConnection : IfcStructuralConnection, ObjectHelper<IfcStructuralPointConnection,0> { IfcStructuralPointConnection() : Object("IfcStructuralPointConnection") {}
	2503
	2504	};
	2505
	2506	// C++ wrapper for IfcPropertyListValue
	2507	struct IfcPropertyListValue : IfcSimpleProperty, ObjectHelper<IfcPropertyListValue,2> { IfcPropertyListValue() : Object("IfcPropertyListValue") {}
	2508	ListOf< IfcValue, 1, 0 >::Out ListValues;
	2509	Maybe< IfcUnit::Out > Unit;
2354	2510	};
2355	2511
2356	2512	// C++ wrapper for IfcFurnitureStandard

2358	2514
2359	2515	};
2360	2516
2361		// C++ wrapper for IfcStairFlightType
2362		struct IfcStairFlightType : IfcBuildingElementType, ObjectHelper<IfcStairFlightType,1> { IfcStairFlightType() : Object("IfcStairFlightType") {}
2363		IfcStairFlightTypeEnum::Out PredefinedType;
	2517	// C++ wrapper for IfcElectricGeneratorType
	2518	struct IfcElectricGeneratorType : IfcEnergyConversionDeviceType, ObjectHelper<IfcElectricGeneratorType,1> { IfcElectricGeneratorType() : Object("IfcElectricGeneratorType") {}
	2519	IfcElectricGeneratorTypeEnum::Out PredefinedType;
	2520	};
	2521
	2522	// C++ wrapper for IfcDoor
	2523	struct IfcDoor : IfcBuildingElement, ObjectHelper<IfcDoor,2> { IfcDoor() : Object("IfcDoor") {}
	2524	Maybe< IfcPositiveLengthMeasure::Out > OverallHeight;
	2525	Maybe< IfcPositiveLengthMeasure::Out > OverallWidth;
	2526	};
	2527
	2528	// C++ wrapper for IfcStyledItem
	2529	struct IfcStyledItem : IfcRepresentationItem, ObjectHelper<IfcStyledItem,3> { IfcStyledItem() : Object("IfcStyledItem") {}
	2530	Maybe< Lazy< IfcRepresentationItem > > Item;
	2531	ListOf< Lazy< IfcPresentationStyleAssignment >, 1, 0 > Styles;
	2532	Maybe< IfcLabel::Out > Name;
	2533	};
	2534
	2535	// C++ wrapper for IfcAnnotationOccurrence
	2536	struct IfcAnnotationOccurrence : IfcStyledItem, ObjectHelper<IfcAnnotationOccurrence,0> { IfcAnnotationOccurrence() : Object("IfcAnnotationOccurrence") {}
	2537
	2538	};
	2539
	2540	// C++ wrapper for IfcAnnotationSymbolOccurrence
	2541	struct IfcAnnotationSymbolOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationSymbolOccurrence,0> { IfcAnnotationSymbolOccurrence() : Object("IfcAnnotationSymbolOccurrence") {}
	2542
	2543	};
	2544
	2545	// C++ wrapper for IfcArbitraryClosedProfileDef
	2546	struct IfcArbitraryClosedProfileDef : IfcProfileDef, ObjectHelper<IfcArbitraryClosedProfileDef,1> { IfcArbitraryClosedProfileDef() : Object("IfcArbitraryClosedProfileDef") {}
	2547	Lazy< IfcCurve > OuterCurve;
	2548	};
	2549
	2550	// C++ wrapper for IfcArbitraryProfileDefWithVoids
	2551	struct IfcArbitraryProfileDefWithVoids : IfcArbitraryClosedProfileDef, ObjectHelper<IfcArbitraryProfileDefWithVoids,1> { IfcArbitraryProfileDefWithVoids() : Object("IfcArbitraryProfileDefWithVoids") {}
	2552	ListOf< Lazy< IfcCurve >, 1, 0 > InnerCurves;
	2553	};
	2554
	2555	// C++ wrapper for IfcLine
	2556	struct IfcLine : IfcCurve, ObjectHelper<IfcLine,2> { IfcLine() : Object("IfcLine") {}
	2557	Lazy< IfcCartesianPoint > Pnt;
	2558	Lazy< IfcVector > Dir;
	2559	};
	2560
	2561	// C++ wrapper for IfcFlowSegmentType
	2562	struct IfcFlowSegmentType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowSegmentType,0> { IfcFlowSegmentType() : Object("IfcFlowSegmentType") {}
	2563
	2564	};
	2565
	2566	// C++ wrapper for IfcAirTerminalBoxType
	2567	struct IfcAirTerminalBoxType : IfcFlowControllerType, ObjectHelper<IfcAirTerminalBoxType,1> { IfcAirTerminalBoxType() : Object("IfcAirTerminalBoxType") {}
	2568	IfcAirTerminalBoxTypeEnum::Out PredefinedType;
	2569	};
	2570
	2571	// C++ wrapper for IfcPropertySingleValue
	2572	struct IfcPropertySingleValue : IfcSimpleProperty, ObjectHelper<IfcPropertySingleValue,2> { IfcPropertySingleValue() : Object("IfcPropertySingleValue") {}
	2573	Maybe< IfcValue::Out > NominalValue;
	2574	Maybe< IfcUnit::Out > Unit;
	2575	};
	2576
	2577	// C++ wrapper for IfcAlarmType
	2578	struct IfcAlarmType : IfcDistributionControlElementType, ObjectHelper<IfcAlarmType,1> { IfcAlarmType() : Object("IfcAlarmType") {}
	2579	IfcAlarmTypeEnum::Out PredefinedType;
	2580	};
	2581
	2582	// C++ wrapper for IfcEllipseProfileDef
	2583	struct IfcEllipseProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcEllipseProfileDef,2> { IfcEllipseProfileDef() : Object("IfcEllipseProfileDef") {}
	2584	IfcPositiveLengthMeasure::Out SemiAxis1;
	2585	IfcPositiveLengthMeasure::Out SemiAxis2;
	2586	};
	2587
	2588	// C++ wrapper for IfcStair
	2589	struct IfcStair : IfcBuildingElement, ObjectHelper<IfcStair,1> { IfcStair() : Object("IfcStair") {}
	2590	IfcStairTypeEnum::Out ShapeType;
	2591	};
	2592
	2593	// C++ wrapper for IfcSurfaceStyleShading
	2594	struct IfcSurfaceStyleShading : ObjectHelper<IfcSurfaceStyleShading,1> { IfcSurfaceStyleShading() : Object("IfcSurfaceStyleShading") {}
	2595	Lazy< IfcColourRgb > SurfaceColour;
	2596	};
	2597
	2598	// C++ wrapper for IfcPumpType
	2599	struct IfcPumpType : IfcFlowMovingDeviceType, ObjectHelper<IfcPumpType,1> { IfcPumpType() : Object("IfcPumpType") {}
	2600	IfcPumpTypeEnum::Out PredefinedType;
	2601	};
	2602
	2603	// C++ wrapper for IfcDefinedSymbol
	2604	struct IfcDefinedSymbol : IfcGeometricRepresentationItem, ObjectHelper<IfcDefinedSymbol,2> { IfcDefinedSymbol() : Object("IfcDefinedSymbol") {}
	2605	IfcDefinedSymbolSelect::Out Definition;
	2606	Lazy< IfcCartesianTransformationOperator2D > Target;
	2607	};
	2608
	2609	// C++ wrapper for IfcElementComponentType
	2610	struct IfcElementComponentType : IfcElementType, ObjectHelper<IfcElementComponentType,0> { IfcElementComponentType() : Object("IfcElementComponentType") {}
	2611
	2612	};
	2613
	2614	// C++ wrapper for IfcFastenerType
	2615	struct IfcFastenerType : IfcElementComponentType, ObjectHelper<IfcFastenerType,0> { IfcFastenerType() : Object("IfcFastenerType") {}
	2616
	2617	};
	2618
	2619	// C++ wrapper for IfcMechanicalFastenerType
	2620	struct IfcMechanicalFastenerType : IfcFastenerType, ObjectHelper<IfcMechanicalFastenerType,0> { IfcMechanicalFastenerType() : Object("IfcMechanicalFastenerType") {}
	2621
	2622	};
	2623
	2624	// C++ wrapper for IfcFlowFitting
	2625	struct IfcFlowFitting : IfcDistributionFlowElement, ObjectHelper<IfcFlowFitting,0> { IfcFlowFitting() : Object("IfcFlowFitting") {}
	2626
	2627	};
	2628
	2629	// C++ wrapper for IfcLightSourceDirectional
	2630	struct IfcLightSourceDirectional : IfcLightSource, ObjectHelper<IfcLightSourceDirectional,1> { IfcLightSourceDirectional() : Object("IfcLightSourceDirectional") {}
	2631	Lazy< IfcDirection > Orientation;
	2632	};
	2633
	2634	// C++ wrapper for IfcSurfaceStyle
	2635	struct IfcSurfaceStyle : IfcPresentationStyle, ObjectHelper<IfcSurfaceStyle,2> { IfcSurfaceStyle() : Object("IfcSurfaceStyle") {}
	2636	IfcSurfaceSide::Out Side;
	2637	ListOf< IfcSurfaceStyleElementSelect, 1, 5 >::Out Styles;
	2638	};
	2639
	2640	// C++ wrapper for IfcAnnotationSurface
	2641	struct IfcAnnotationSurface : IfcGeometricRepresentationItem, ObjectHelper<IfcAnnotationSurface,2> { IfcAnnotationSurface() : Object("IfcAnnotationSurface") {}
	2642	Lazy< IfcGeometricRepresentationItem > Item;
	2643	Maybe< Lazy< NotImplemented > > TextureCoordinates;
	2644	};
	2645
	2646	// C++ wrapper for IfcFlowController
	2647	struct IfcFlowController : IfcDistributionFlowElement, ObjectHelper<IfcFlowController,0> { IfcFlowController() : Object("IfcFlowController") {}
	2648
	2649	};
	2650
	2651	// C++ wrapper for IfcBuildingStorey
	2652	struct IfcBuildingStorey : IfcSpatialStructureElement, ObjectHelper<IfcBuildingStorey,1> { IfcBuildingStorey() : Object("IfcBuildingStorey") {}
	2653	Maybe< IfcLengthMeasure::Out > Elevation;
2364	2654	};
2365	2655
2366	2656	// C++ wrapper for IfcWorkControl

2377	2667	Maybe< IfcLabel::Out > UserDefinedControlType;
2378	2668	};
2379	2669
2380		// C++ wrapper for IfcWorkPlan
2381		struct IfcWorkPlan : IfcWorkControl, ObjectHelper<IfcWorkPlan,0> { IfcWorkPlan() : Object("IfcWorkPlan") {}
2382
2383		};
2384
2385		// C++ wrapper for IfcCondition
2386		struct IfcCondition : IfcGroup, ObjectHelper<IfcCondition,0> { IfcCondition() : Object("IfcCondition") {}
2387
2388		};
2389
2390		// C++ wrapper for IfcRelVoidsElement
2391		struct IfcRelVoidsElement : IfcRelConnects, ObjectHelper<IfcRelVoidsElement,2> { IfcRelVoidsElement() : Object("IfcRelVoidsElement") {}
2392		Lazy< IfcElement > RelatingBuildingElement;
2393		Lazy< IfcFeatureElementSubtraction > RelatedOpeningElement;
2394		};
2395
2396		// C++ wrapper for IfcWindow
2397		struct IfcWindow : IfcBuildingElement, ObjectHelper<IfcWindow,2> { IfcWindow() : Object("IfcWindow") {}
2398		Maybe< IfcPositiveLengthMeasure::Out > OverallHeight;
2399		Maybe< IfcPositiveLengthMeasure::Out > OverallWidth;
2400		};
2401
2402		// C++ wrapper for IfcProtectiveDeviceType
2403		struct IfcProtectiveDeviceType : IfcFlowControllerType, ObjectHelper<IfcProtectiveDeviceType,1> { IfcProtectiveDeviceType() : Object("IfcProtectiveDeviceType") {}
2404		IfcProtectiveDeviceTypeEnum::Out PredefinedType;
2405		};
2406
2407		// C++ wrapper for IfcJunctionBoxType
2408		struct IfcJunctionBoxType : IfcFlowFittingType, ObjectHelper<IfcJunctionBoxType,1> { IfcJunctionBoxType() : Object("IfcJunctionBoxType") {}
2409		IfcJunctionBoxTypeEnum::Out PredefinedType;
2410		};
2411
2412		// C++ wrapper for IfcStructuralAnalysisModel
2413		struct IfcStructuralAnalysisModel : IfcSystem, ObjectHelper<IfcStructuralAnalysisModel,4> { IfcStructuralAnalysisModel() : Object("IfcStructuralAnalysisModel") {}
2414		IfcAnalysisModelTypeEnum::Out PredefinedType;
2415		Maybe< Lazy< IfcAxis2Placement3D > > OrientationOf2DPlane;
2416		Maybe< ListOf< Lazy< IfcStructuralLoadGroup >, 1, 0 > > LoadedBy;
2417		Maybe< ListOf< Lazy< IfcStructuralResultGroup >, 1, 0 > > HasResults;
2418		};
2419
2420		// C++ wrapper for IfcAxis2Placement2D
2421		struct IfcAxis2Placement2D : IfcPlacement, ObjectHelper<IfcAxis2Placement2D,1> { IfcAxis2Placement2D() : Object("IfcAxis2Placement2D") {}
2422		Maybe< Lazy< IfcDirection > > RefDirection;
2423		};
2424
2425		// C++ wrapper for IfcSpaceType
2426		struct IfcSpaceType : IfcSpatialStructureElementType, ObjectHelper<IfcSpaceType,1> { IfcSpaceType() : Object("IfcSpaceType") {}
2427		IfcSpaceTypeEnum::Out PredefinedType;
2428		};
2429
2430		// C++ wrapper for IfcEllipseProfileDef
2431		struct IfcEllipseProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcEllipseProfileDef,2> { IfcEllipseProfileDef() : Object("IfcEllipseProfileDef") {}
2432		IfcPositiveLengthMeasure::Out SemiAxis1;
2433		IfcPositiveLengthMeasure::Out SemiAxis2;
2434		};
2435
2436		// C++ wrapper for IfcDistributionFlowElement
2437		struct IfcDistributionFlowElement : IfcDistributionElement, ObjectHelper<IfcDistributionFlowElement,0> { IfcDistributionFlowElement() : Object("IfcDistributionFlowElement") {}
2438
2439		};
2440
2441		// C++ wrapper for IfcFlowMovingDevice
2442		struct IfcFlowMovingDevice : IfcDistributionFlowElement, ObjectHelper<IfcFlowMovingDevice,0> { IfcFlowMovingDevice() : Object("IfcFlowMovingDevice") {}
2443
2444		};
2445
2446		// C++ wrapper for IfcSurfaceStyleWithTextures
2447		struct IfcSurfaceStyleWithTextures : ObjectHelper<IfcSurfaceStyleWithTextures,1> { IfcSurfaceStyleWithTextures() : Object("IfcSurfaceStyleWithTextures") {}
2448		ListOf< Lazy< NotImplemented >, 1, 0 > Textures;
2449		};
2450
2451		// C++ wrapper for IfcGeometricSet
2452		struct IfcGeometricSet : IfcGeometricRepresentationItem, ObjectHelper<IfcGeometricSet,1> { IfcGeometricSet() : Object("IfcGeometricSet") {}
2453		ListOf< IfcGeometricSetSelect, 1, 0 >::Out Elements;
2454		};
2455
2456		// C++ wrapper for IfcProjectOrder
2457		struct IfcProjectOrder : IfcControl, ObjectHelper<IfcProjectOrder,3> { IfcProjectOrder() : Object("IfcProjectOrder") {}
	2670	// C++ wrapper for IfcWorkSchedule
	2671	struct IfcWorkSchedule : IfcWorkControl, ObjectHelper<IfcWorkSchedule,0> { IfcWorkSchedule() : Object("IfcWorkSchedule") {}
	2672
	2673	};
	2674
	2675	// C++ wrapper for IfcDuctSegmentType
	2676	struct IfcDuctSegmentType : IfcFlowSegmentType, ObjectHelper<IfcDuctSegmentType,1> { IfcDuctSegmentType() : Object("IfcDuctSegmentType") {}
	2677	IfcDuctSegmentTypeEnum::Out PredefinedType;
	2678	};
	2679
	2680	// C++ wrapper for IfcFace
	2681	struct IfcFace : IfcTopologicalRepresentationItem, ObjectHelper<IfcFace,1> { IfcFace() : Object("IfcFace") {}
	2682	ListOf< Lazy< IfcFaceBound >, 1, 0 > Bounds;
	2683	};
	2684
	2685	// C++ wrapper for IfcStructuralSurfaceMember
	2686	struct IfcStructuralSurfaceMember : IfcStructuralMember, ObjectHelper<IfcStructuralSurfaceMember,2> { IfcStructuralSurfaceMember() : Object("IfcStructuralSurfaceMember") {}
	2687	IfcStructuralSurfaceTypeEnum::Out PredefinedType;
	2688	Maybe< IfcPositiveLengthMeasure::Out > Thickness;
	2689	};
	2690
	2691	// C++ wrapper for IfcStructuralSurfaceMemberVarying
	2692	struct IfcStructuralSurfaceMemberVarying : IfcStructuralSurfaceMember, ObjectHelper<IfcStructuralSurfaceMemberVarying,2> { IfcStructuralSurfaceMemberVarying() : Object("IfcStructuralSurfaceMemberVarying") {}
	2693	ListOf< IfcPositiveLengthMeasure, 2, 0 >::Out SubsequentThickness;
	2694	Lazy< NotImplemented > VaryingThicknessLocation;
	2695	};
	2696
	2697	// C++ wrapper for IfcFaceSurface
	2698	struct IfcFaceSurface : IfcFace, ObjectHelper<IfcFaceSurface,2> { IfcFaceSurface() : Object("IfcFaceSurface") {}
	2699	Lazy< IfcSurface > FaceSurface;
	2700	BOOLEAN::Out SameSense;
	2701	};
	2702
	2703	// C++ wrapper for IfcCostSchedule
	2704	struct IfcCostSchedule : IfcControl, ObjectHelper<IfcCostSchedule,8> { IfcCostSchedule() : Object("IfcCostSchedule") {}
	2705	Maybe< IfcActorSelect::Out > SubmittedBy;
	2706	Maybe< IfcActorSelect::Out > PreparedBy;
	2707	Maybe< IfcDateTimeSelect::Out > SubmittedOn;
	2708	Maybe< IfcLabel::Out > Status;
	2709	Maybe< ListOf< IfcActorSelect, 1, 0 >::Out > TargetUsers;
	2710	Maybe< IfcDateTimeSelect::Out > UpdateDate;
2458	2711	IfcIdentifier::Out ID;
2459		IfcProjectOrderTypeEnum::Out PredefinedType;
2460		Maybe< IfcLabel::Out > Status;
	2712	IfcCostScheduleTypeEnum::Out PredefinedType;
	2713	};
	2714
	2715	// C++ wrapper for IfcPlanarExtent
	2716	struct IfcPlanarExtent : IfcGeometricRepresentationItem, ObjectHelper<IfcPlanarExtent,2> { IfcPlanarExtent() : Object("IfcPlanarExtent") {}
	2717	IfcLengthMeasure::Out SizeInX;
	2718	IfcLengthMeasure::Out SizeInY;
	2719	};
	2720
	2721	// C++ wrapper for IfcPlanarBox
	2722	struct IfcPlanarBox : IfcPlanarExtent, ObjectHelper<IfcPlanarBox,1> { IfcPlanarBox() : Object("IfcPlanarBox") {}
	2723	IfcAxis2Placement::Out Placement;
	2724	};
	2725
	2726	// C++ wrapper for IfcColourSpecification
	2727	struct IfcColourSpecification : ObjectHelper<IfcColourSpecification,1> { IfcColourSpecification() : Object("IfcColourSpecification") {}
	2728	Maybe< IfcLabel::Out > Name;
	2729	};
	2730
	2731	// C++ wrapper for IfcVector
	2732	struct IfcVector : IfcGeometricRepresentationItem, ObjectHelper<IfcVector,2> { IfcVector() : Object("IfcVector") {}
	2733	Lazy< IfcDirection > Orientation;
	2734	IfcLengthMeasure::Out Magnitude;
	2735	};
	2736
	2737	// C++ wrapper for IfcBeam
	2738	struct IfcBeam : IfcBuildingElement, ObjectHelper<IfcBeam,0> { IfcBeam() : Object("IfcBeam") {}
	2739
	2740	};
	2741
	2742	// C++ wrapper for IfcColourRgb
	2743	struct IfcColourRgb : IfcColourSpecification, ObjectHelper<IfcColourRgb,3> { IfcColourRgb() : Object("IfcColourRgb") {}
	2744	IfcNormalisedRatioMeasure::Out Red;
	2745	IfcNormalisedRatioMeasure::Out Green;
	2746	IfcNormalisedRatioMeasure::Out Blue;
	2747	};
	2748
	2749	// C++ wrapper for IfcStructuralPlanarAction
	2750	struct IfcStructuralPlanarAction : IfcStructuralAction, ObjectHelper<IfcStructuralPlanarAction,1> { IfcStructuralPlanarAction() : Object("IfcStructuralPlanarAction") {}
	2751	IfcProjectedOrTrueLengthEnum::Out ProjectedOrTrue;
	2752	};
	2753
	2754	// C++ wrapper for IfcStructuralPlanarActionVarying
	2755	struct IfcStructuralPlanarActionVarying : IfcStructuralPlanarAction, ObjectHelper<IfcStructuralPlanarActionVarying,2> { IfcStructuralPlanarActionVarying() : Object("IfcStructuralPlanarActionVarying") {}
	2756	Lazy< NotImplemented > VaryingAppliedLoadLocation;
	2757	ListOf< Lazy< NotImplemented >, 2, 0 > SubsequentAppliedLoads;
	2758	};
	2759
	2760	// C++ wrapper for IfcSite
	2761	struct IfcSite : IfcSpatialStructureElement, ObjectHelper<IfcSite,5> { IfcSite() : Object("IfcSite") {}
	2762	Maybe< IfcCompoundPlaneAngleMeasure::Out > RefLatitude;
	2763	Maybe< IfcCompoundPlaneAngleMeasure::Out > RefLongitude;
	2764	Maybe< IfcLengthMeasure::Out > RefElevation;
	2765	Maybe< IfcLabel::Out > LandTitleNumber;
	2766	Maybe< Lazy< NotImplemented > > SiteAddress;
	2767	};
	2768
	2769	// C++ wrapper for IfcDiscreteAccessoryType
	2770	struct IfcDiscreteAccessoryType : IfcElementComponentType, ObjectHelper<IfcDiscreteAccessoryType,0> { IfcDiscreteAccessoryType() : Object("IfcDiscreteAccessoryType") {}
	2771
	2772	};
	2773
	2774	// C++ wrapper for IfcVibrationIsolatorType
	2775	struct IfcVibrationIsolatorType : IfcDiscreteAccessoryType, ObjectHelper<IfcVibrationIsolatorType,1> { IfcVibrationIsolatorType() : Object("IfcVibrationIsolatorType") {}
	2776	IfcVibrationIsolatorTypeEnum::Out PredefinedType;
	2777	};
	2778
	2779	// C++ wrapper for IfcEvaporativeCoolerType
	2780	struct IfcEvaporativeCoolerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcEvaporativeCoolerType,1> { IfcEvaporativeCoolerType() : Object("IfcEvaporativeCoolerType") {}
	2781	IfcEvaporativeCoolerTypeEnum::Out PredefinedType;
	2782	};
	2783
	2784	// C++ wrapper for IfcDistributionChamberElementType
	2785	struct IfcDistributionChamberElementType : IfcDistributionFlowElementType, ObjectHelper<IfcDistributionChamberElementType,1> { IfcDistributionChamberElementType() : Object("IfcDistributionChamberElementType") {}
	2786	IfcDistributionChamberElementTypeEnum::Out PredefinedType;
	2787	};
	2788
	2789	// C++ wrapper for IfcFeatureElementAddition
	2790	struct IfcFeatureElementAddition : IfcFeatureElement, ObjectHelper<IfcFeatureElementAddition,0> { IfcFeatureElementAddition() : Object("IfcFeatureElementAddition") {}
	2791
	2792	};
	2793
	2794	// C++ wrapper for IfcStructuredDimensionCallout
	2795	struct IfcStructuredDimensionCallout : IfcDraughtingCallout, ObjectHelper<IfcStructuredDimensionCallout,0> { IfcStructuredDimensionCallout() : Object("IfcStructuredDimensionCallout") {}
	2796
	2797	};
	2798
	2799	// C++ wrapper for IfcCoolingTowerType
	2800	struct IfcCoolingTowerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCoolingTowerType,1> { IfcCoolingTowerType() : Object("IfcCoolingTowerType") {}
	2801	IfcCoolingTowerTypeEnum::Out PredefinedType;
	2802	};
	2803
	2804	// C++ wrapper for IfcCenterLineProfileDef
	2805	struct IfcCenterLineProfileDef : IfcArbitraryOpenProfileDef, ObjectHelper<IfcCenterLineProfileDef,1> { IfcCenterLineProfileDef() : Object("IfcCenterLineProfileDef") {}
	2806	IfcPositiveLengthMeasure::Out Thickness;
	2807	};
	2808
	2809	// C++ wrapper for IfcWindowStyle
	2810	struct IfcWindowStyle : IfcTypeProduct, ObjectHelper<IfcWindowStyle,4> { IfcWindowStyle() : Object("IfcWindowStyle") {}
	2811	IfcWindowStyleConstructionEnum::Out ConstructionType;
	2812	IfcWindowStyleOperationEnum::Out OperationType;
	2813	BOOLEAN::Out ParameterTakesPrecedence;
	2814	BOOLEAN::Out Sizeable;
	2815	};
	2816
	2817	// C++ wrapper for IfcLightSourceGoniometric
	2818	struct IfcLightSourceGoniometric : IfcLightSource, ObjectHelper<IfcLightSourceGoniometric,6> { IfcLightSourceGoniometric() : Object("IfcLightSourceGoniometric") {}
	2819	Lazy< IfcAxis2Placement3D > Position;
	2820	Maybe< Lazy< IfcColourRgb > > ColourAppearance;
	2821	IfcThermodynamicTemperatureMeasure::Out ColourTemperature;
	2822	IfcLuminousFluxMeasure::Out LuminousFlux;
	2823	IfcLightEmissionSourceEnum::Out LightEmissionSource;
	2824	IfcLightDistributionDataSourceSelect::Out LightDistributionDataSource;
	2825	};
	2826
	2827	// C++ wrapper for IfcTransformerType
	2828	struct IfcTransformerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcTransformerType,1> { IfcTransformerType() : Object("IfcTransformerType") {}
	2829	IfcTransformerTypeEnum::Out PredefinedType;
	2830	};
	2831
	2832	// C++ wrapper for IfcMemberType
	2833	struct IfcMemberType : IfcBuildingElementType, ObjectHelper<IfcMemberType,1> { IfcMemberType() : Object("IfcMemberType") {}
	2834	IfcMemberTypeEnum::Out PredefinedType;
	2835	};
	2836
	2837	// C++ wrapper for IfcSurfaceOfLinearExtrusion
	2838	struct IfcSurfaceOfLinearExtrusion : IfcSweptSurface, ObjectHelper<IfcSurfaceOfLinearExtrusion,2> { IfcSurfaceOfLinearExtrusion() : Object("IfcSurfaceOfLinearExtrusion") {}
	2839	Lazy< IfcDirection > ExtrudedDirection;
	2840	IfcLengthMeasure::Out Depth;
	2841	};
	2842
	2843	// C++ wrapper for IfcMotorConnectionType
	2844	struct IfcMotorConnectionType : IfcEnergyConversionDeviceType, ObjectHelper<IfcMotorConnectionType,1> { IfcMotorConnectionType() : Object("IfcMotorConnectionType") {}
	2845	IfcMotorConnectionTypeEnum::Out PredefinedType;
	2846	};
	2847
	2848	// C++ wrapper for IfcFlowTreatmentDeviceType
	2849	struct IfcFlowTreatmentDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowTreatmentDeviceType,0> { IfcFlowTreatmentDeviceType() : Object("IfcFlowTreatmentDeviceType") {}
	2850
	2851	};
	2852
	2853	// C++ wrapper for IfcDuctSilencerType
	2854	struct IfcDuctSilencerType : IfcFlowTreatmentDeviceType, ObjectHelper<IfcDuctSilencerType,1> { IfcDuctSilencerType() : Object("IfcDuctSilencerType") {}
	2855	IfcDuctSilencerTypeEnum::Out PredefinedType;
	2856	};
	2857
	2858	// C++ wrapper for IfcFurnishingElementType
	2859	struct IfcFurnishingElementType : IfcElementType, ObjectHelper<IfcFurnishingElementType,0> { IfcFurnishingElementType() : Object("IfcFurnishingElementType") {}
	2860
	2861	};
	2862
	2863	// C++ wrapper for IfcSystemFurnitureElementType
	2864	struct IfcSystemFurnitureElementType : IfcFurnishingElementType, ObjectHelper<IfcSystemFurnitureElementType,0> { IfcSystemFurnitureElementType() : Object("IfcSystemFurnitureElementType") {}
	2865
	2866	};
	2867
	2868	// C++ wrapper for IfcWasteTerminalType
	2869	struct IfcWasteTerminalType : IfcFlowTerminalType, ObjectHelper<IfcWasteTerminalType,1> { IfcWasteTerminalType() : Object("IfcWasteTerminalType") {}
	2870	IfcWasteTerminalTypeEnum::Out PredefinedType;
2461	2871	};
2462	2872
2463	2873	// C++ wrapper for IfcBSplineCurve

2474	2884
2475	2885	};
2476	2886
2477		// C++ wrapper for IfcStructuralPointConnection
2478		struct IfcStructuralPointConnection : IfcStructuralConnection, ObjectHelper<IfcStructuralPointConnection,0> { IfcStructuralPointConnection() : Object("IfcStructuralPointConnection") {}
2479
2480		};
2481
2482		// C++ wrapper for IfcFlowController
2483		struct IfcFlowController : IfcDistributionFlowElement, ObjectHelper<IfcFlowController,0> { IfcFlowController() : Object("IfcFlowController") {}
2484
2485		};
2486
2487		// C++ wrapper for IfcElectricDistributionPoint
2488		struct IfcElectricDistributionPoint : IfcFlowController, ObjectHelper<IfcElectricDistributionPoint,2> { IfcElectricDistributionPoint() : Object("IfcElectricDistributionPoint") {}
2489		IfcElectricDistributionPointFunctionEnum::Out DistributionPointFunction;
2490		Maybe< IfcLabel::Out > UserDefinedFunction;
2491		};
2492
2493		// C++ wrapper for IfcSite
2494		struct IfcSite : IfcSpatialStructureElement, ObjectHelper<IfcSite,5> { IfcSite() : Object("IfcSite") {}
2495		Maybe< IfcCompoundPlaneAngleMeasure::Out > RefLatitude;
2496		Maybe< IfcCompoundPlaneAngleMeasure::Out > RefLongitude;
2497		Maybe< IfcLengthMeasure::Out > RefElevation;
2498		Maybe< IfcLabel::Out > LandTitleNumber;
2499		Maybe< Lazy< NotImplemented > > SiteAddress;
2500		};
2501
2502		// C++ wrapper for IfcOffsetCurve3D
2503		struct IfcOffsetCurve3D : IfcCurve, ObjectHelper<IfcOffsetCurve3D,4> { IfcOffsetCurve3D() : Object("IfcOffsetCurve3D") {}
2504		Lazy< IfcCurve > BasisCurve;
2505		IfcLengthMeasure::Out Distance;
2506		LOGICAL::Out SelfIntersect;
2507		Lazy< IfcDirection > RefDirection;
2508		};
2509
2510		// C++ wrapper for IfcVirtualElement
2511		struct IfcVirtualElement : IfcElement, ObjectHelper<IfcVirtualElement,0> { IfcVirtualElement() : Object("IfcVirtualElement") {}
2512
2513		};
2514
2515		// C++ wrapper for IfcConstructionProductResource
2516		struct IfcConstructionProductResource : IfcConstructionResource, ObjectHelper<IfcConstructionProductResource,0> { IfcConstructionProductResource() : Object("IfcConstructionProductResource") {}
2517
	2887	// C++ wrapper for IfcActuatorType
	2888	struct IfcActuatorType : IfcDistributionControlElementType, ObjectHelper<IfcActuatorType,1> { IfcActuatorType() : Object("IfcActuatorType") {}
	2889	IfcActuatorTypeEnum::Out PredefinedType;
	2890	};
	2891
	2892	// C++ wrapper for IfcDistributionControlElement
	2893	struct IfcDistributionControlElement : IfcDistributionElement, ObjectHelper<IfcDistributionControlElement,1> { IfcDistributionControlElement() : Object("IfcDistributionControlElement") {}
	2894	Maybe< IfcIdentifier::Out > ControlElementId;
	2895	};
	2896
	2897	// C++ wrapper for IfcAnnotation
	2898	struct IfcAnnotation : IfcProduct, ObjectHelper<IfcAnnotation,0> { IfcAnnotation() : Object("IfcAnnotation") {}
	2899
	2900	};
	2901
	2902	// C++ wrapper for IfcShellBasedSurfaceModel
	2903	struct IfcShellBasedSurfaceModel : IfcGeometricRepresentationItem, ObjectHelper<IfcShellBasedSurfaceModel,1> { IfcShellBasedSurfaceModel() : Object("IfcShellBasedSurfaceModel") {}
	2904	ListOf< IfcShell, 1, 0 >::Out SbsmBoundary;
	2905	};
	2906
	2907	// C++ wrapper for IfcActionRequest
	2908	struct IfcActionRequest : IfcControl, ObjectHelper<IfcActionRequest,1> { IfcActionRequest() : Object("IfcActionRequest") {}
	2909	IfcIdentifier::Out RequestID;
	2910	};
	2911
	2912	// C++ wrapper for IfcExtrudedAreaSolid
	2913	struct IfcExtrudedAreaSolid : IfcSweptAreaSolid, ObjectHelper<IfcExtrudedAreaSolid,2> { IfcExtrudedAreaSolid() : Object("IfcExtrudedAreaSolid") {}
	2914	Lazy< IfcDirection > ExtrudedDirection;
	2915	IfcPositiveLengthMeasure::Out Depth;
	2916	};
	2917
	2918	// C++ wrapper for IfcSystem
	2919	struct IfcSystem : IfcGroup, ObjectHelper<IfcSystem,0> { IfcSystem() : Object("IfcSystem") {}
	2920
	2921	};
	2922
	2923	// C++ wrapper for IfcFillAreaStyleHatching
	2924	struct IfcFillAreaStyleHatching : IfcGeometricRepresentationItem, ObjectHelper<IfcFillAreaStyleHatching,5> { IfcFillAreaStyleHatching() : Object("IfcFillAreaStyleHatching") {}
	2925	Lazy< NotImplemented > HatchLineAppearance;
	2926	IfcHatchLineDistanceSelect::Out StartOfNextHatchLine;
	2927	Maybe< Lazy< IfcCartesianPoint > > PointOfReferenceHatchLine;
	2928	Maybe< Lazy< IfcCartesianPoint > > PatternStart;
	2929	IfcPlaneAngleMeasure::Out HatchLineAngle;
	2930	};
	2931
	2932	// C++ wrapper for IfcRelVoidsElement
	2933	struct IfcRelVoidsElement : IfcRelConnects, ObjectHelper<IfcRelVoidsElement,2> { IfcRelVoidsElement() : Object("IfcRelVoidsElement") {}
	2934	Lazy< IfcElement > RelatingBuildingElement;
	2935	Lazy< IfcFeatureElementSubtraction > RelatedOpeningElement;
2518	2936	};
2519	2937
2520	2938	// C++ wrapper for IfcSurfaceCurveSweptAreaSolid

2525	2943	Lazy< IfcSurface > ReferenceSurface;
2526	2944	};
2527	2945
2528		// C++ wrapper for IfcCartesianTransformationOperator3D
2529		struct IfcCartesianTransformationOperator3D : IfcCartesianTransformationOperator, ObjectHelper<IfcCartesianTransformationOperator3D,1> { IfcCartesianTransformationOperator3D() : Object("IfcCartesianTransformationOperator3D") {}
2530		Maybe< Lazy< IfcDirection > > Axis3;
2531		};
2532
2533	2946	// C++ wrapper for IfcCartesianTransformationOperator3DnonUniform
2534	2947	struct IfcCartesianTransformationOperator3DnonUniform : IfcCartesianTransformationOperator3D, ObjectHelper<IfcCartesianTransformationOperator3DnonUniform,2> { IfcCartesianTransformationOperator3DnonUniform() : Object("IfcCartesianTransformationOperator3DnonUniform") {}
2535	2948	Maybe< REAL::Out > Scale2;
2536	2949	Maybe< REAL::Out > Scale3;
2537	2950	};
2538	2951
2539		// C++ wrapper for IfcCrewResource
2540		struct IfcCrewResource : IfcConstructionResource, ObjectHelper<IfcCrewResource,0> { IfcCrewResource() : Object("IfcCrewResource") {}
2541
2542		};
2543
2544		// C++ wrapper for IfcStructuralSurfaceMember
2545		struct IfcStructuralSurfaceMember : IfcStructuralMember, ObjectHelper<IfcStructuralSurfaceMember,2> { IfcStructuralSurfaceMember() : Object("IfcStructuralSurfaceMember") {}
2546		IfcStructuralSurfaceTypeEnum::Out PredefinedType;
2547		Maybe< IfcPositiveLengthMeasure::Out > Thickness;
2548		};
2549
2550		// C++ wrapper for Ifc2DCompositeCurve
2551		struct Ifc2DCompositeCurve : IfcCompositeCurve, ObjectHelper<Ifc2DCompositeCurve,0> { Ifc2DCompositeCurve() : Object("Ifc2DCompositeCurve") {}
2552
	2952	// C++ wrapper for IfcCurtainWallType
	2953	struct IfcCurtainWallType : IfcBuildingElementType, ObjectHelper<IfcCurtainWallType,1> { IfcCurtainWallType() : Object("IfcCurtainWallType") {}
	2954	IfcCurtainWallTypeEnum::Out PredefinedType;
	2955	};
	2956
	2957	// C++ wrapper for IfcEquipmentStandard
	2958	struct IfcEquipmentStandard : IfcControl, ObjectHelper<IfcEquipmentStandard,0> { IfcEquipmentStandard() : Object("IfcEquipmentStandard") {}
	2959
	2960	};
	2961
	2962	// C++ wrapper for IfcFlowStorageDeviceType
	2963	struct IfcFlowStorageDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowStorageDeviceType,0> { IfcFlowStorageDeviceType() : Object("IfcFlowStorageDeviceType") {}
	2964
	2965	};
	2966
	2967	// C++ wrapper for IfcDiameterDimension
	2968	struct IfcDiameterDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcDiameterDimension,0> { IfcDiameterDimension() : Object("IfcDiameterDimension") {}
	2969
	2970	};
	2971
	2972	// C++ wrapper for IfcSwitchingDeviceType
	2973	struct IfcSwitchingDeviceType : IfcFlowControllerType, ObjectHelper<IfcSwitchingDeviceType,1> { IfcSwitchingDeviceType() : Object("IfcSwitchingDeviceType") {}
	2974	IfcSwitchingDeviceTypeEnum::Out PredefinedType;
	2975	};
	2976
	2977	// C++ wrapper for IfcWindow
	2978	struct IfcWindow : IfcBuildingElement, ObjectHelper<IfcWindow,2> { IfcWindow() : Object("IfcWindow") {}
	2979	Maybe< IfcPositiveLengthMeasure::Out > OverallHeight;
	2980	Maybe< IfcPositiveLengthMeasure::Out > OverallWidth;
	2981	};
	2982
	2983	// C++ wrapper for IfcFlowTreatmentDevice
	2984	struct IfcFlowTreatmentDevice : IfcDistributionFlowElement, ObjectHelper<IfcFlowTreatmentDevice,0> { IfcFlowTreatmentDevice() : Object("IfcFlowTreatmentDevice") {}
	2985
	2986	};
	2987
	2988	// C++ wrapper for IfcChillerType
	2989	struct IfcChillerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcChillerType,1> { IfcChillerType() : Object("IfcChillerType") {}
	2990	IfcChillerTypeEnum::Out PredefinedType;
	2991	};
	2992
	2993	// C++ wrapper for IfcRectangleHollowProfileDef
	2994	struct IfcRectangleHollowProfileDef : IfcRectangleProfileDef, ObjectHelper<IfcRectangleHollowProfileDef,3> { IfcRectangleHollowProfileDef() : Object("IfcRectangleHollowProfileDef") {}
	2995	IfcPositiveLengthMeasure::Out WallThickness;
	2996	Maybe< IfcPositiveLengthMeasure::Out > InnerFilletRadius;
	2997	Maybe< IfcPositiveLengthMeasure::Out > OuterFilletRadius;
	2998	};
	2999
	3000	// C++ wrapper for IfcBoxedHalfSpace
	3001	struct IfcBoxedHalfSpace : IfcHalfSpaceSolid, ObjectHelper<IfcBoxedHalfSpace,1> { IfcBoxedHalfSpace() : Object("IfcBoxedHalfSpace") {}
	3002	Lazy< IfcBoundingBox > Enclosure;
	3003	};
	3004
	3005	// C++ wrapper for IfcAxis2Placement2D
	3006	struct IfcAxis2Placement2D : IfcPlacement, ObjectHelper<IfcAxis2Placement2D,1> { IfcAxis2Placement2D() : Object("IfcAxis2Placement2D") {}
	3007	Maybe< Lazy< IfcDirection > > RefDirection;
	3008	};
	3009
	3010	// C++ wrapper for IfcSpaceProgram
	3011	struct IfcSpaceProgram : IfcControl, ObjectHelper<IfcSpaceProgram,5> { IfcSpaceProgram() : Object("IfcSpaceProgram") {}
	3012	IfcIdentifier::Out SpaceProgramIdentifier;
	3013	Maybe< IfcAreaMeasure::Out > MaxRequiredArea;
	3014	Maybe< IfcAreaMeasure::Out > MinRequiredArea;
	3015	Maybe< Lazy< IfcSpatialStructureElement > > RequestedLocation;
	3016	IfcAreaMeasure::Out StandardRequiredArea;
	3017	};
	3018
	3019	// C++ wrapper for IfcPoint
	3020	struct IfcPoint : IfcGeometricRepresentationItem, ObjectHelper<IfcPoint,0> { IfcPoint() : Object("IfcPoint") {}
	3021
	3022	};
	3023
	3024	// C++ wrapper for IfcCartesianPoint
	3025	struct IfcCartesianPoint : IfcPoint, ObjectHelper<IfcCartesianPoint,1> { IfcCartesianPoint() : Object("IfcCartesianPoint") {}
	3026	ListOf< IfcLengthMeasure, 1, 3 >::Out Coordinates;
	3027	};
	3028
	3029	// C++ wrapper for IfcBoundedSurface
	3030	struct IfcBoundedSurface : IfcSurface, ObjectHelper<IfcBoundedSurface,0> { IfcBoundedSurface() : Object("IfcBoundedSurface") {}
	3031
	3032	};
	3033
	3034	// C++ wrapper for IfcLoop
	3035	struct IfcLoop : IfcTopologicalRepresentationItem, ObjectHelper<IfcLoop,0> { IfcLoop() : Object("IfcLoop") {}
	3036
	3037	};
	3038
	3039	// C++ wrapper for IfcPolyLoop
	3040	struct IfcPolyLoop : IfcLoop, ObjectHelper<IfcPolyLoop,1> { IfcPolyLoop() : Object("IfcPolyLoop") {}
	3041	ListOf< Lazy< IfcCartesianPoint >, 3, 0 > Polygon;
	3042	};
	3043
	3044	// C++ wrapper for IfcTerminatorSymbol
	3045	struct IfcTerminatorSymbol : IfcAnnotationSymbolOccurrence, ObjectHelper<IfcTerminatorSymbol,1> { IfcTerminatorSymbol() : Object("IfcTerminatorSymbol") {}
	3046	Lazy< IfcAnnotationCurveOccurrence > AnnotatedCurve;
	3047	};
	3048
	3049	// C++ wrapper for IfcDimensionCurveTerminator
	3050	struct IfcDimensionCurveTerminator : IfcTerminatorSymbol, ObjectHelper<IfcDimensionCurveTerminator,1> { IfcDimensionCurveTerminator() : Object("IfcDimensionCurveTerminator") {}
	3051	IfcDimensionExtentUsage::Out Role;
	3052	};
	3053
	3054	// C++ wrapper for IfcTrapeziumProfileDef
	3055	struct IfcTrapeziumProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcTrapeziumProfileDef,4> { IfcTrapeziumProfileDef() : Object("IfcTrapeziumProfileDef") {}
	3056	IfcPositiveLengthMeasure::Out BottomXDim;
	3057	IfcPositiveLengthMeasure::Out TopXDim;
	3058	IfcPositiveLengthMeasure::Out YDim;
	3059	IfcLengthMeasure::Out TopXOffset;
2553	3060	};
2554	3061
2555	3062	// C++ wrapper for IfcRepresentationContext

2566	3073	Maybe< Lazy< IfcDirection > > TrueNorth;
2567	3074	};
2568	3075
2569		// C++ wrapper for IfcFlowTreatmentDevice
2570		struct IfcFlowTreatmentDevice : IfcDistributionFlowElement, ObjectHelper<IfcFlowTreatmentDevice,0> { IfcFlowTreatmentDevice() : Object("IfcFlowTreatmentDevice") {}
2571
2572		};
2573
2574		// C++ wrapper for IfcRightCircularCylinder
2575		struct IfcRightCircularCylinder : IfcCsgPrimitive3D, ObjectHelper<IfcRightCircularCylinder,2> { IfcRightCircularCylinder() : Object("IfcRightCircularCylinder") {}
2576		IfcPositiveLengthMeasure::Out Height;
2577		IfcPositiveLengthMeasure::Out Radius;
2578		};
2579
2580		// C++ wrapper for IfcWasteTerminalType
2581		struct IfcWasteTerminalType : IfcFlowTerminalType, ObjectHelper<IfcWasteTerminalType,1> { IfcWasteTerminalType() : Object("IfcWasteTerminalType") {}
2582		IfcWasteTerminalTypeEnum::Out PredefinedType;
2583		};
2584
2585		// C++ wrapper for IfcBuildingElementComponent
2586		struct IfcBuildingElementComponent : IfcBuildingElement, ObjectHelper<IfcBuildingElementComponent,0> { IfcBuildingElementComponent() : Object("IfcBuildingElementComponent") {}
2587
2588		};
2589
2590		// C++ wrapper for IfcBuildingElementPart
2591		struct IfcBuildingElementPart : IfcBuildingElementComponent, ObjectHelper<IfcBuildingElementPart,0> { IfcBuildingElementPart() : Object("IfcBuildingElementPart") {}
2592
2593		};
2594
2595		// C++ wrapper for IfcWall
2596		struct IfcWall : IfcBuildingElement, ObjectHelper<IfcWall,0> { IfcWall() : Object("IfcWall") {}
2597
2598		};
2599
2600		// C++ wrapper for IfcWallStandardCase
2601		struct IfcWallStandardCase : IfcWall, ObjectHelper<IfcWallStandardCase,0> { IfcWallStandardCase() : Object("IfcWallStandardCase") {}
2602
2603		};
2604
2605		// C++ wrapper for IfcPath
2606		struct IfcPath : IfcTopologicalRepresentationItem, ObjectHelper<IfcPath,1> { IfcPath() : Object("IfcPath") {}
2607		ListOf< Lazy< IfcOrientedEdge >, 1, 0 > EdgeList;
2608		};
2609
2610		// C++ wrapper for IfcDefinedSymbol
2611		struct IfcDefinedSymbol : IfcGeometricRepresentationItem, ObjectHelper<IfcDefinedSymbol,2> { IfcDefinedSymbol() : Object("IfcDefinedSymbol") {}
2612		IfcDefinedSymbolSelect::Out Definition;
2613		Lazy< IfcCartesianTransformationOperator2D > Target;
2614		};
2615
2616		// C++ wrapper for IfcStructuralSurfaceMemberVarying
2617		struct IfcStructuralSurfaceMemberVarying : IfcStructuralSurfaceMember, ObjectHelper<IfcStructuralSurfaceMemberVarying,2> { IfcStructuralSurfaceMemberVarying() : Object("IfcStructuralSurfaceMemberVarying") {}
2618		ListOf< IfcPositiveLengthMeasure, 2, 0 >::Out SubsequentThickness;
2619		Lazy< NotImplemented > VaryingThicknessLocation;
2620		};
2621
2622		// C++ wrapper for IfcPoint
2623		struct IfcPoint : IfcGeometricRepresentationItem, ObjectHelper<IfcPoint,0> { IfcPoint() : Object("IfcPoint") {}
2624
2625		};
2626
2627		// C++ wrapper for IfcSurfaceOfRevolution
2628		struct IfcSurfaceOfRevolution : IfcSweptSurface, ObjectHelper<IfcSurfaceOfRevolution,1> { IfcSurfaceOfRevolution() : Object("IfcSurfaceOfRevolution") {}
2629		Lazy< IfcAxis1Placement > AxisPosition;
2630		};
2631
2632		// C++ wrapper for IfcFlowTerminal
2633		struct IfcFlowTerminal : IfcDistributionFlowElement, ObjectHelper<IfcFlowTerminal,0> { IfcFlowTerminal() : Object("IfcFlowTerminal") {}
2634
	3076	// C++ wrapper for IfcCurveBoundedPlane
	3077	struct IfcCurveBoundedPlane : IfcBoundedSurface, ObjectHelper<IfcCurveBoundedPlane,3> { IfcCurveBoundedPlane() : Object("IfcCurveBoundedPlane") {}
	3078	Lazy< IfcPlane > BasisSurface;
	3079	Lazy< IfcCurve > OuterBoundary;
	3080	ListOf< Lazy< IfcCurve >, 0, 0 > InnerBoundaries;
	3081	};
	3082
	3083	// C++ wrapper for IfcSIUnit
	3084	struct IfcSIUnit : IfcNamedUnit, ObjectHelper<IfcSIUnit,2> { IfcSIUnit() : Object("IfcSIUnit") {}
	3085	Maybe< IfcSIPrefix::Out > Prefix;
	3086	IfcSIUnitName::Out Name;
	3087	};
	3088
	3089	// C++ wrapper for IfcStructuralReaction
	3090	struct IfcStructuralReaction : IfcStructuralActivity, ObjectHelper<IfcStructuralReaction,0> { IfcStructuralReaction() : Object("IfcStructuralReaction") {}
	3091
	3092	};
	3093
	3094	// C++ wrapper for IfcStructuralPointReaction
	3095	struct IfcStructuralPointReaction : IfcStructuralReaction, ObjectHelper<IfcStructuralPointReaction,0> { IfcStructuralPointReaction() : Object("IfcStructuralPointReaction") {}
	3096
	3097	};
	3098
	3099	// C++ wrapper for IfcAxis1Placement
	3100	struct IfcAxis1Placement : IfcPlacement, ObjectHelper<IfcAxis1Placement,1> { IfcAxis1Placement() : Object("IfcAxis1Placement") {}
	3101	Maybe< Lazy< IfcDirection > > Axis;
	3102	};
	3103
	3104	// C++ wrapper for IfcElectricApplianceType
	3105	struct IfcElectricApplianceType : IfcFlowTerminalType, ObjectHelper<IfcElectricApplianceType,1> { IfcElectricApplianceType() : Object("IfcElectricApplianceType") {}
	3106	IfcElectricApplianceTypeEnum::Out PredefinedType;
	3107	};
	3108
	3109	// C++ wrapper for IfcSensorType
	3110	struct IfcSensorType : IfcDistributionControlElementType, ObjectHelper<IfcSensorType,1> { IfcSensorType() : Object("IfcSensorType") {}
	3111	IfcSensorTypeEnum::Out PredefinedType;
2635	3112	};
2636	3113
2637	3114	// C++ wrapper for IfcFurnishingElement

2639	3116
2640	3117	};
2641	3118
2642		// C++ wrapper for IfcSurfaceStyleShading
2643		struct IfcSurfaceStyleShading : ObjectHelper<IfcSurfaceStyleShading,1> { IfcSurfaceStyleShading() : Object("IfcSurfaceStyleShading") {}
2644		Lazy< IfcColourRgb > SurfaceColour;
2645		};
2646
2647		// C++ wrapper for IfcSurfaceStyleRendering
2648		struct IfcSurfaceStyleRendering : IfcSurfaceStyleShading, ObjectHelper<IfcSurfaceStyleRendering,8> { IfcSurfaceStyleRendering() : Object("IfcSurfaceStyleRendering") {}
2649		Maybe< IfcNormalisedRatioMeasure::Out > Transparency;
2650		Maybe< IfcColourOrFactor::Out > DiffuseColour;
2651		Maybe< IfcColourOrFactor::Out > TransmissionColour;
2652		Maybe< IfcColourOrFactor::Out > DiffuseTransmissionColour;
2653		Maybe< IfcColourOrFactor::Out > ReflectionColour;
2654		Maybe< IfcColourOrFactor::Out > SpecularColour;
2655		Maybe< IfcSpecularHighlightSelect::Out > SpecularHighlight;
2656		IfcReflectanceMethodEnum::Out ReflectanceMethod;
2657		};
2658
2659		// C++ wrapper for IfcCircleHollowProfileDef
2660		struct IfcCircleHollowProfileDef : IfcCircleProfileDef, ObjectHelper<IfcCircleHollowProfileDef,1> { IfcCircleHollowProfileDef() : Object("IfcCircleHollowProfileDef") {}
2661		IfcPositiveLengthMeasure::Out WallThickness;
2662		};
2663
2664		// C++ wrapper for IfcFlowMovingDeviceType
2665		struct IfcFlowMovingDeviceType : IfcDistributionFlowElementType, ObjectHelper<IfcFlowMovingDeviceType,0> { IfcFlowMovingDeviceType() : Object("IfcFlowMovingDeviceType") {}
2666
2667		};
2668
2669		// C++ wrapper for IfcFanType
2670		struct IfcFanType : IfcFlowMovingDeviceType, ObjectHelper<IfcFanType,1> { IfcFanType() : Object("IfcFanType") {}
2671		IfcFanTypeEnum::Out PredefinedType;
2672		};
2673
2674		// C++ wrapper for IfcStructuralPlanarActionVarying
2675		struct IfcStructuralPlanarActionVarying : IfcStructuralPlanarAction, ObjectHelper<IfcStructuralPlanarActionVarying,2> { IfcStructuralPlanarActionVarying() : Object("IfcStructuralPlanarActionVarying") {}
2676		Lazy< NotImplemented > VaryingAppliedLoadLocation;
2677		ListOf< Lazy< NotImplemented >, 2, 0 > SubsequentAppliedLoads;
2678		};
2679
2680		// C++ wrapper for IfcProductRepresentation
2681		struct IfcProductRepresentation : ObjectHelper<IfcProductRepresentation,3> { IfcProductRepresentation() : Object("IfcProductRepresentation") {}
2682		Maybe< IfcLabel::Out > Name;
2683		Maybe< IfcText::Out > Description;
2684		ListOf< Lazy< IfcRepresentation >, 1, 0 > Representations;
2685		};
2686
2687		// C++ wrapper for IfcStackTerminalType
2688		struct IfcStackTerminalType : IfcFlowTerminalType, ObjectHelper<IfcStackTerminalType,1> { IfcStackTerminalType() : Object("IfcStackTerminalType") {}
2689		IfcStackTerminalTypeEnum::Out PredefinedType;
2690		};
2691
2692		// C++ wrapper for IfcReinforcingElement
2693		struct IfcReinforcingElement : IfcBuildingElementComponent, ObjectHelper<IfcReinforcingElement,1> { IfcReinforcingElement() : Object("IfcReinforcingElement") {}
2694		Maybe< IfcLabel::Out > SteelGrade;
2695		};
2696
2697		// C++ wrapper for IfcReinforcingMesh
2698		struct IfcReinforcingMesh : IfcReinforcingElement, ObjectHelper<IfcReinforcingMesh,8> { IfcReinforcingMesh() : Object("IfcReinforcingMesh") {}
2699		Maybe< IfcPositiveLengthMeasure::Out > MeshLength;
2700		Maybe< IfcPositiveLengthMeasure::Out > MeshWidth;
2701		IfcPositiveLengthMeasure::Out LongitudinalBarNominalDiameter;
2702		IfcPositiveLengthMeasure::Out TransverseBarNominalDiameter;
2703		IfcAreaMeasure::Out LongitudinalBarCrossSectionArea;
2704		IfcAreaMeasure::Out TransverseBarCrossSectionArea;
2705		IfcPositiveLengthMeasure::Out LongitudinalBarSpacing;
2706		IfcPositiveLengthMeasure::Out TransverseBarSpacing;
2707		};
2708
2709		// C++ wrapper for IfcOrderAction
2710		struct IfcOrderAction : IfcTask, ObjectHelper<IfcOrderAction,1> { IfcOrderAction() : Object("IfcOrderAction") {}
2711		IfcIdentifier::Out ActionID;
2712		};
2713
2714		// C++ wrapper for IfcLightSource
2715		struct IfcLightSource : IfcGeometricRepresentationItem, ObjectHelper<IfcLightSource,4> { IfcLightSource() : Object("IfcLightSource") {}
2716		Maybe< IfcLabel::Out > Name;
2717		Lazy< IfcColourRgb > LightColour;
2718		Maybe< IfcNormalisedRatioMeasure::Out > AmbientIntensity;
2719		Maybe< IfcNormalisedRatioMeasure::Out > Intensity;
2720		};
2721
2722		// C++ wrapper for IfcLightSourceDirectional
2723		struct IfcLightSourceDirectional : IfcLightSource, ObjectHelper<IfcLightSourceDirectional,1> { IfcLightSourceDirectional() : Object("IfcLightSourceDirectional") {}
2724		Lazy< IfcDirection > Orientation;
2725		};
2726
2727		// C++ wrapper for IfcLoop
2728		struct IfcLoop : IfcTopologicalRepresentationItem, ObjectHelper<IfcLoop,0> { IfcLoop() : Object("IfcLoop") {}
2729
2730		};
2731
2732		// C++ wrapper for IfcVertexLoop
2733		struct IfcVertexLoop : IfcLoop, ObjectHelper<IfcVertexLoop,1> { IfcVertexLoop() : Object("IfcVertexLoop") {}
2734		Lazy< IfcVertex > LoopVertex;
2735		};
2736
2737		// C++ wrapper for IfcChamferEdgeFeature
2738		struct IfcChamferEdgeFeature : IfcEdgeFeature, ObjectHelper<IfcChamferEdgeFeature,2> { IfcChamferEdgeFeature() : Object("IfcChamferEdgeFeature") {}
2739		Maybe< IfcPositiveLengthMeasure::Out > Width;
2740		Maybe< IfcPositiveLengthMeasure::Out > Height;
2741		};
2742
2743		// C++ wrapper for IfcElementComponentType
2744		struct IfcElementComponentType : IfcElementType, ObjectHelper<IfcElementComponentType,0> { IfcElementComponentType() : Object("IfcElementComponentType") {}
2745
2746		};
2747
2748		// C++ wrapper for IfcFastenerType
2749		struct IfcFastenerType : IfcElementComponentType, ObjectHelper<IfcFastenerType,0> { IfcFastenerType() : Object("IfcFastenerType") {}
2750
2751		};
2752
2753		// C++ wrapper for IfcMechanicalFastenerType
2754		struct IfcMechanicalFastenerType : IfcFastenerType, ObjectHelper<IfcMechanicalFastenerType,0> { IfcMechanicalFastenerType() : Object("IfcMechanicalFastenerType") {}
2755
	3119	// C++ wrapper for IfcProtectiveDeviceType
	3120	struct IfcProtectiveDeviceType : IfcFlowControllerType, ObjectHelper<IfcProtectiveDeviceType,1> { IfcProtectiveDeviceType() : Object("IfcProtectiveDeviceType") {}
	3121	IfcProtectiveDeviceTypeEnum::Out PredefinedType;
	3122	};
	3123
	3124	// C++ wrapper for IfcZShapeProfileDef
	3125	struct IfcZShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcZShapeProfileDef,6> { IfcZShapeProfileDef() : Object("IfcZShapeProfileDef") {}
	3126	IfcPositiveLengthMeasure::Out Depth;
	3127	IfcPositiveLengthMeasure::Out FlangeWidth;
	3128	IfcPositiveLengthMeasure::Out WebThickness;
	3129	IfcPositiveLengthMeasure::Out FlangeThickness;
	3130	Maybe< IfcPositiveLengthMeasure::Out > FilletRadius;
	3131	Maybe< IfcPositiveLengthMeasure::Out > EdgeRadius;
2756	3132	};
2757	3133
2758	3134	// C++ wrapper for IfcScheduleTimeControl

2777	3153	Maybe< IfcPositiveRatioMeasure::Out > Completion;
2778	3154	};
2779	3155
2780		// C++ wrapper for IfcSurfaceStyle
2781		struct IfcSurfaceStyle : IfcPresentationStyle, ObjectHelper<IfcSurfaceStyle,2> { IfcSurfaceStyle() : Object("IfcSurfaceStyle") {}
2782		IfcSurfaceSide::Out Side;
2783		ListOf< IfcSurfaceStyleElementSelect, 1, 5 >::Out Styles;
2784		};
2785
2786		// C++ wrapper for IfcOpenShell
2787		struct IfcOpenShell : IfcConnectedFaceSet, ObjectHelper<IfcOpenShell,0> { IfcOpenShell() : Object("IfcOpenShell") {}
2788
2789		};
2790
2791		// C++ wrapper for IfcSubContractResource
2792		struct IfcSubContractResource : IfcConstructionResource, ObjectHelper<IfcSubContractResource,2> { IfcSubContractResource() : Object("IfcSubContractResource") {}
2793		Maybe< IfcActorSelect::Out > SubContractor;
2794		Maybe< IfcText::Out > JobDescription;
2795		};
2796
2797		// C++ wrapper for IfcSweptDiskSolid
2798		struct IfcSweptDiskSolid : IfcSolidModel, ObjectHelper<IfcSweptDiskSolid,5> { IfcSweptDiskSolid() : Object("IfcSweptDiskSolid") {}
2799		Lazy< IfcCurve > Directrix;
2800		IfcPositiveLengthMeasure::Out Radius;
2801		Maybe< IfcPositiveLengthMeasure::Out > InnerRadius;
2802		IfcParameterValue::Out StartParam;
2803		IfcParameterValue::Out EndParam;
2804		};
2805
2806		// C++ wrapper for IfcCompositeProfileDef
2807		struct IfcCompositeProfileDef : IfcProfileDef, ObjectHelper<IfcCompositeProfileDef,2> { IfcCompositeProfileDef() : Object("IfcCompositeProfileDef") {}
2808		ListOf< Lazy< IfcProfileDef >, 2, 0 > Profiles;
2809		Maybe< IfcLabel::Out > Label;
2810		};
2811
2812		// C++ wrapper for IfcTankType
2813		struct IfcTankType : IfcFlowStorageDeviceType, ObjectHelper<IfcTankType,1> { IfcTankType() : Object("IfcTankType") {}
2814		IfcTankTypeEnum::Out PredefinedType;
	3156	// C++ wrapper for IfcRepresentationMap
	3157	struct IfcRepresentationMap : ObjectHelper<IfcRepresentationMap,2> { IfcRepresentationMap() : Object("IfcRepresentationMap") {}
	3158	IfcAxis2Placement::Out MappingOrigin;
	3159	Lazy< IfcRepresentation > MappedRepresentation;
	3160	};
	3161
	3162	// C++ wrapper for IfcClosedShell
	3163	struct IfcClosedShell : IfcConnectedFaceSet, ObjectHelper<IfcClosedShell,0> { IfcClosedShell() : Object("IfcClosedShell") {}
	3164
	3165	};
	3166
	3167	// C++ wrapper for IfcBuildingElementPart
	3168	struct IfcBuildingElementPart : IfcBuildingElementComponent, ObjectHelper<IfcBuildingElementPart,0> { IfcBuildingElementPart() : Object("IfcBuildingElementPart") {}
	3169
	3170	};
	3171
	3172	// C++ wrapper for IfcBlock
	3173	struct IfcBlock : IfcCsgPrimitive3D, ObjectHelper<IfcBlock,3> { IfcBlock() : Object("IfcBlock") {}
	3174	IfcPositiveLengthMeasure::Out XLength;
	3175	IfcPositiveLengthMeasure::Out YLength;
	3176	IfcPositiveLengthMeasure::Out ZLength;
	3177	};
	3178
	3179	// C++ wrapper for IfcLightFixtureType
	3180	struct IfcLightFixtureType : IfcFlowTerminalType, ObjectHelper<IfcLightFixtureType,1> { IfcLightFixtureType() : Object("IfcLightFixtureType") {}
	3181	IfcLightFixtureTypeEnum::Out PredefinedType;
	3182	};
	3183
	3184	// C++ wrapper for IfcOpeningElement
	3185	struct IfcOpeningElement : IfcFeatureElementSubtraction, ObjectHelper<IfcOpeningElement,0> { IfcOpeningElement() : Object("IfcOpeningElement") {}
	3186
	3187	};
	3188
	3189	// C++ wrapper for IfcLightSourceSpot
	3190	struct IfcLightSourceSpot : IfcLightSourcePositional, ObjectHelper<IfcLightSourceSpot,4> { IfcLightSourceSpot() : Object("IfcLightSourceSpot") {}
	3191	Lazy< IfcDirection > Orientation;
	3192	Maybe< IfcReal::Out > ConcentrationExponent;
	3193	IfcPositivePlaneAngleMeasure::Out SpreadAngle;
	3194	IfcPositivePlaneAngleMeasure::Out BeamWidthAngle;
	3195	};
	3196
	3197	// C++ wrapper for IfcTendonAnchor
	3198	struct IfcTendonAnchor : IfcReinforcingElement, ObjectHelper<IfcTendonAnchor,0> { IfcTendonAnchor() : Object("IfcTendonAnchor") {}
	3199
	3200	};
	3201
	3202	// C++ wrapper for IfcElectricFlowStorageDeviceType
	3203	struct IfcElectricFlowStorageDeviceType : IfcFlowStorageDeviceType, ObjectHelper<IfcElectricFlowStorageDeviceType,1> { IfcElectricFlowStorageDeviceType() : Object("IfcElectricFlowStorageDeviceType") {}
	3204	IfcElectricFlowStorageDeviceTypeEnum::Out PredefinedType;
2815	3205	};
2816	3206
2817	3207	// C++ wrapper for IfcSphere

2819	3209	IfcPositiveLengthMeasure::Out Radius;
2820	3210	};
2821	3211
2822		// C++ wrapper for IfcPolyLoop
2823		struct IfcPolyLoop : IfcLoop, ObjectHelper<IfcPolyLoop,1> { IfcPolyLoop() : Object("IfcPolyLoop") {}
2824		ListOf< Lazy< IfcCartesianPoint >, 3, 0 > Polygon;
2825		};
2826
2827		// C++ wrapper for IfcCableCarrierFittingType
2828		struct IfcCableCarrierFittingType : IfcFlowFittingType, ObjectHelper<IfcCableCarrierFittingType,1> { IfcCableCarrierFittingType() : Object("IfcCableCarrierFittingType") {}
2829		IfcCableCarrierFittingTypeEnum::Out PredefinedType;
2830		};
2831
2832		// C++ wrapper for IfcHumidifierType
2833		struct IfcHumidifierType : IfcEnergyConversionDeviceType, ObjectHelper<IfcHumidifierType,1> { IfcHumidifierType() : Object("IfcHumidifierType") {}
2834		IfcHumidifierTypeEnum::Out PredefinedType;
2835		};
2836
2837		// C++ wrapper for IfcPerformanceHistory
2838		struct IfcPerformanceHistory : IfcControl, ObjectHelper<IfcPerformanceHistory,1> { IfcPerformanceHistory() : Object("IfcPerformanceHistory") {}
2839		IfcLabel::Out LifeCyclePhase;
2840		};
2841
2842		// C++ wrapper for IfcShapeModel
2843		struct IfcShapeModel : IfcRepresentation, ObjectHelper<IfcShapeModel,0> { IfcShapeModel() : Object("IfcShapeModel") {}
2844
2845		};
2846
2847		// C++ wrapper for IfcTopologyRepresentation
2848		struct IfcTopologyRepresentation : IfcShapeModel, ObjectHelper<IfcTopologyRepresentation,0> { IfcTopologyRepresentation() : Object("IfcTopologyRepresentation") {}
2849
2850		};
2851
2852		// C++ wrapper for IfcBuilding
2853		struct IfcBuilding : IfcSpatialStructureElement, ObjectHelper<IfcBuilding,3> { IfcBuilding() : Object("IfcBuilding") {}
2854		Maybe< IfcLengthMeasure::Out > ElevationOfRefHeight;
2855		Maybe< IfcLengthMeasure::Out > ElevationOfTerrain;
2856		Maybe< Lazy< NotImplemented > > BuildingAddress;
2857		};
2858
2859		// C++ wrapper for IfcRoundedRectangleProfileDef
2860		struct IfcRoundedRectangleProfileDef : IfcRectangleProfileDef, ObjectHelper<IfcRoundedRectangleProfileDef,1> { IfcRoundedRectangleProfileDef() : Object("IfcRoundedRectangleProfileDef") {}
2861		IfcPositiveLengthMeasure::Out RoundingRadius;
2862		};
2863
2864		// C++ wrapper for IfcStairFlight
2865		struct IfcStairFlight : IfcBuildingElement, ObjectHelper<IfcStairFlight,4> { IfcStairFlight() : Object("IfcStairFlight") {}
2866		Maybe< INTEGER::Out > NumberOfRiser;
2867		Maybe< INTEGER::Out > NumberOfTreads;
2868		Maybe< IfcPositiveLengthMeasure::Out > RiserHeight;
2869		Maybe< IfcPositiveLengthMeasure::Out > TreadLength;
	3212	// C++ wrapper for IfcDamperType
	3213	struct IfcDamperType : IfcFlowControllerType, ObjectHelper<IfcDamperType,1> { IfcDamperType() : Object("IfcDamperType") {}
	3214	IfcDamperTypeEnum::Out PredefinedType;
	3215	};
	3216
	3217	// C++ wrapper for IfcProjectOrderRecord
	3218	struct IfcProjectOrderRecord : IfcControl, ObjectHelper<IfcProjectOrderRecord,2> { IfcProjectOrderRecord() : Object("IfcProjectOrderRecord") {}
	3219	ListOf< Lazy< NotImplemented >, 1, 0 > Records;
	3220	IfcProjectOrderRecordTypeEnum::Out PredefinedType;
2870	3221	};
2871	3222
2872	3223	// C++ wrapper for IfcDistributionChamberElement

2874	3225
2875	3226	};
2876	3227
2877		// C++ wrapper for IfcShapeRepresentation
2878		struct IfcShapeRepresentation : IfcShapeModel, ObjectHelper<IfcShapeRepresentation,0> { IfcShapeRepresentation() : Object("IfcShapeRepresentation") {}
2879
2880		};
2881
2882		// C++ wrapper for IfcRampFlight
2883		struct IfcRampFlight : IfcBuildingElement, ObjectHelper<IfcRampFlight,0> { IfcRampFlight() : Object("IfcRampFlight") {}
2884
2885		};
2886
2887		// C++ wrapper for IfcBeamType
2888		struct IfcBeamType : IfcBuildingElementType, ObjectHelper<IfcBeamType,1> { IfcBeamType() : Object("IfcBeamType") {}
2889		IfcBeamTypeEnum::Out PredefinedType;
2890		};
2891
2892		// C++ wrapper for IfcRelDecomposes
2893		struct IfcRelDecomposes : IfcRelationship, ObjectHelper<IfcRelDecomposes,2> { IfcRelDecomposes() : Object("IfcRelDecomposes") {}
2894		Lazy< IfcObjectDefinition > RelatingObject;
2895		ListOf< Lazy< IfcObjectDefinition >, 1, 0 > RelatedObjects;
2896		};
2897
2898		// C++ wrapper for IfcRoof
2899		struct IfcRoof : IfcBuildingElement, ObjectHelper<IfcRoof,1> { IfcRoof() : Object("IfcRoof") {}
2900		IfcRoofTypeEnum::Out ShapeType;
2901		};
2902
2903		// C++ wrapper for IfcFooting
2904		struct IfcFooting : IfcBuildingElement, ObjectHelper<IfcFooting,1> { IfcFooting() : Object("IfcFooting") {}
2905		IfcFootingTypeEnum::Out PredefinedType;
2906		};
2907
2908		// C++ wrapper for IfcLightSourceAmbient
2909		struct IfcLightSourceAmbient : IfcLightSource, ObjectHelper<IfcLightSourceAmbient,0> { IfcLightSourceAmbient() : Object("IfcLightSourceAmbient") {}
2910
2911		};
2912
2913		// C++ wrapper for IfcWindowStyle
2914		struct IfcWindowStyle : IfcTypeProduct, ObjectHelper<IfcWindowStyle,4> { IfcWindowStyle() : Object("IfcWindowStyle") {}
2915		IfcWindowStyleConstructionEnum::Out ConstructionType;
2916		IfcWindowStyleOperationEnum::Out OperationType;
2917		BOOLEAN::Out ParameterTakesPrecedence;
2918		BOOLEAN::Out Sizeable;
2919		};
2920
2921		// C++ wrapper for IfcBuildingElementProxyType
2922		struct IfcBuildingElementProxyType : IfcBuildingElementType, ObjectHelper<IfcBuildingElementProxyType,1> { IfcBuildingElementProxyType() : Object("IfcBuildingElementProxyType") {}
2923		IfcBuildingElementProxyTypeEnum::Out PredefinedType;
2924		};
2925
2926		// C++ wrapper for IfcAxis2Placement3D
2927		struct IfcAxis2Placement3D : IfcPlacement, ObjectHelper<IfcAxis2Placement3D,2> { IfcAxis2Placement3D() : Object("IfcAxis2Placement3D") {}
2928		Maybe< Lazy< IfcDirection > > Axis;
2929		Maybe< Lazy< IfcDirection > > RefDirection;
2930		};
2931
2932		// C++ wrapper for IfcEdgeCurve
2933		struct IfcEdgeCurve : IfcEdge, ObjectHelper<IfcEdgeCurve,2> { IfcEdgeCurve() : Object("IfcEdgeCurve") {}
2934		Lazy< IfcCurve > EdgeGeometry;
2935		BOOLEAN::Out SameSense;
2936		};
2937
2938		// C++ wrapper for IfcClosedShell
2939		struct IfcClosedShell : IfcConnectedFaceSet, ObjectHelper<IfcClosedShell,0> { IfcClosedShell() : Object("IfcClosedShell") {}
2940
2941		};
2942
2943		// C++ wrapper for IfcTendonAnchor
2944		struct IfcTendonAnchor : IfcReinforcingElement, ObjectHelper<IfcTendonAnchor,0> { IfcTendonAnchor() : Object("IfcTendonAnchor") {}
2945
2946		};
2947
2948		// C++ wrapper for IfcCondenserType
2949		struct IfcCondenserType : IfcEnergyConversionDeviceType, ObjectHelper<IfcCondenserType,1> { IfcCondenserType() : Object("IfcCondenserType") {}
2950		IfcCondenserTypeEnum::Out PredefinedType;
2951		};
2952
2953		// C++ wrapper for IfcPipeSegmentType
2954		struct IfcPipeSegmentType : IfcFlowSegmentType, ObjectHelper<IfcPipeSegmentType,1> { IfcPipeSegmentType() : Object("IfcPipeSegmentType") {}
2955		IfcPipeSegmentTypeEnum::Out PredefinedType;
2956		};
2957
2958		// C++ wrapper for IfcPointOnSurface
2959		struct IfcPointOnSurface : IfcPoint, ObjectHelper<IfcPointOnSurface,3> { IfcPointOnSurface() : Object("IfcPointOnSurface") {}
	3228	// C++ wrapper for IfcMechanicalFastener
	3229	struct IfcMechanicalFastener : IfcFastener, ObjectHelper<IfcMechanicalFastener,2> { IfcMechanicalFastener() : Object("IfcMechanicalFastener") {}
	3230	Maybe< IfcPositiveLengthMeasure::Out > NominalDiameter;
	3231	Maybe< IfcPositiveLengthMeasure::Out > NominalLength;
	3232	};
	3233
	3234	// C++ wrapper for IfcRectangularTrimmedSurface
	3235	struct IfcRectangularTrimmedSurface : IfcBoundedSurface, ObjectHelper<IfcRectangularTrimmedSurface,7> { IfcRectangularTrimmedSurface() : Object("IfcRectangularTrimmedSurface") {}
2960	3236	Lazy< IfcSurface > BasisSurface;
2961		IfcParameterValue::Out PointParameterU;
2962		IfcParameterValue::Out PointParameterV;
2963		};
2964
2965		// C++ wrapper for IfcAsset
2966		struct IfcAsset : IfcGroup, ObjectHelper<IfcAsset,9> { IfcAsset() : Object("IfcAsset") {}
2967		IfcIdentifier::Out AssetID;
2968		Lazy< NotImplemented > OriginalValue;
2969		Lazy< NotImplemented > CurrentValue;
2970		Lazy< NotImplemented > TotalReplacementCost;
2971		IfcActorSelect::Out Owner;
2972		IfcActorSelect::Out User;
2973		Lazy< NotImplemented > ResponsiblePerson;
2974		Lazy< NotImplemented > IncorporationDate;
2975		Lazy< NotImplemented > DepreciatedValue;
2976		};
2977
2978		// C++ wrapper for IfcLightSourcePositional
2979		struct IfcLightSourcePositional : IfcLightSource, ObjectHelper<IfcLightSourcePositional,5> { IfcLightSourcePositional() : Object("IfcLightSourcePositional") {}
2980		Lazy< IfcCartesianPoint > Position;
2981		IfcPositiveLengthMeasure::Out Radius;
2982		IfcReal::Out ConstantAttenuation;
2983		IfcReal::Out DistanceAttenuation;
2984		IfcReal::Out QuadricAttenuation;
2985		};
2986
2987		// C++ wrapper for IfcProjectionCurve
2988		struct IfcProjectionCurve : IfcAnnotationCurveOccurrence, ObjectHelper<IfcProjectionCurve,0> { IfcProjectionCurve() : Object("IfcProjectionCurve") {}
2989
	3237	IfcParameterValue::Out U1;
	3238	IfcParameterValue::Out V1;
	3239	IfcParameterValue::Out U2;
	3240	IfcParameterValue::Out V2;
	3241	BOOLEAN::Out Usense;
	3242	BOOLEAN::Out Vsense;
	3243	};
	3244
	3245	// C++ wrapper for IfcZone
	3246	struct IfcZone : IfcGroup, ObjectHelper<IfcZone,0> { IfcZone() : Object("IfcZone") {}
	3247
	3248	};
	3249
	3250	// C++ wrapper for IfcFanType
	3251	struct IfcFanType : IfcFlowMovingDeviceType, ObjectHelper<IfcFanType,1> { IfcFanType() : Object("IfcFanType") {}
	3252	IfcFanTypeEnum::Out PredefinedType;
	3253	};
	3254
	3255	// C++ wrapper for IfcGeometricSet
	3256	struct IfcGeometricSet : IfcGeometricRepresentationItem, ObjectHelper<IfcGeometricSet,1> { IfcGeometricSet() : Object("IfcGeometricSet") {}
	3257	ListOf< IfcGeometricSetSelect, 1, 0 >::Out Elements;
2990	3258	};
2991	3259
2992	3260	// C++ wrapper for IfcFillAreaStyleTiles

2996	3264	IfcPositiveRatioMeasure::Out TilingScale;
2997	3265	};
2998	3266
2999		// C++ wrapper for IfcRelFillsElement
3000		struct IfcRelFillsElement : IfcRelConnects, ObjectHelper<IfcRelFillsElement,2> { IfcRelFillsElement() : Object("IfcRelFillsElement") {}
3001		Lazy< IfcOpeningElement > RelatingOpeningElement;
3002		Lazy< IfcElement > RelatedBuildingElement;
3003		};
3004
3005		// C++ wrapper for IfcElectricMotorType
3006		struct IfcElectricMotorType : IfcEnergyConversionDeviceType, ObjectHelper<IfcElectricMotorType,1> { IfcElectricMotorType() : Object("IfcElectricMotorType") {}
3007		IfcElectricMotorTypeEnum::Out PredefinedType;
3008		};
3009
3010		// C++ wrapper for IfcTendon
3011		struct IfcTendon : IfcReinforcingElement, ObjectHelper<IfcTendon,8> { IfcTendon() : Object("IfcTendon") {}
3012		IfcTendonTypeEnum::Out PredefinedType;
3013		IfcPositiveLengthMeasure::Out NominalDiameter;
3014		IfcAreaMeasure::Out CrossSectionArea;
3015		Maybe< IfcForceMeasure::Out > TensionForce;
3016		Maybe< IfcPressureMeasure::Out > PreStress;
3017		Maybe< IfcNormalisedRatioMeasure::Out > FrictionCoefficient;
3018		Maybe< IfcPositiveLengthMeasure::Out > AnchorageSlip;
3019		Maybe< IfcPositiveLengthMeasure::Out > MinCurvatureRadius;
3020		};
3021
3022		// C++ wrapper for IfcDistributionChamberElementType
3023		struct IfcDistributionChamberElementType : IfcDistributionFlowElementType, ObjectHelper<IfcDistributionChamberElementType,1> { IfcDistributionChamberElementType() : Object("IfcDistributionChamberElementType") {}
3024		IfcDistributionChamberElementTypeEnum::Out PredefinedType;
3025		};
3026
3027		// C++ wrapper for IfcMemberType
3028		struct IfcMemberType : IfcBuildingElementType, ObjectHelper<IfcMemberType,1> { IfcMemberType() : Object("IfcMemberType") {}
3029		IfcMemberTypeEnum::Out PredefinedType;
3030		};
3031
3032		// C++ wrapper for IfcStructuralLinearAction
3033		struct IfcStructuralLinearAction : IfcStructuralAction, ObjectHelper<IfcStructuralLinearAction,1> { IfcStructuralLinearAction() : Object("IfcStructuralLinearAction") {}
3034		IfcProjectedOrTrueLengthEnum::Out ProjectedOrTrue;
3035		};
3036
3037		// C++ wrapper for IfcStructuralLinearActionVarying
3038		struct IfcStructuralLinearActionVarying : IfcStructuralLinearAction, ObjectHelper<IfcStructuralLinearActionVarying,2> { IfcStructuralLinearActionVarying() : Object("IfcStructuralLinearActionVarying") {}
3039		Lazy< NotImplemented > VaryingAppliedLoadLocation;
3040		ListOf< Lazy< NotImplemented >, 1, 0 > SubsequentAppliedLoads;
3041		};
3042
3043		// C++ wrapper for IfcProductDefinitionShape
3044		struct IfcProductDefinitionShape : IfcProductRepresentation, ObjectHelper<IfcProductDefinitionShape,0> { IfcProductDefinitionShape() : Object("IfcProductDefinitionShape") {}
3045
3046		};
3047
3048		// C++ wrapper for IfcFastener
3049		struct IfcFastener : IfcElementComponent, ObjectHelper<IfcFastener,0> { IfcFastener() : Object("IfcFastener") {}
3050
3051		};
3052
3053		// C++ wrapper for IfcMechanicalFastener
3054		struct IfcMechanicalFastener : IfcFastener, ObjectHelper<IfcMechanicalFastener,2> { IfcMechanicalFastener() : Object("IfcMechanicalFastener") {}
3055		Maybe< IfcPositiveLengthMeasure::Out > NominalDiameter;
3056		Maybe< IfcPositiveLengthMeasure::Out > NominalLength;
3057		};
3058
3059		// C++ wrapper for IfcEvaporatorType
3060		struct IfcEvaporatorType : IfcEnergyConversionDeviceType, ObjectHelper<IfcEvaporatorType,1> { IfcEvaporatorType() : Object("IfcEvaporatorType") {}
3061		IfcEvaporatorTypeEnum::Out PredefinedType;
3062		};
3063
3064		// C++ wrapper for IfcDiscreteAccessoryType
3065		struct IfcDiscreteAccessoryType : IfcElementComponentType, ObjectHelper<IfcDiscreteAccessoryType,0> { IfcDiscreteAccessoryType() : Object("IfcDiscreteAccessoryType") {}
3066
3067		};
3068
3069		// C++ wrapper for IfcStructuralCurveConnection
3070		struct IfcStructuralCurveConnection : IfcStructuralConnection, ObjectHelper<IfcStructuralCurveConnection,0> { IfcStructuralCurveConnection() : Object("IfcStructuralCurveConnection") {}
3071
3072		};
3073
3074		// C++ wrapper for IfcProjectionElement
3075		struct IfcProjectionElement : IfcFeatureElementAddition, ObjectHelper<IfcProjectionElement,0> { IfcProjectionElement() : Object("IfcProjectionElement") {}
3076
3077		};
3078
3079		// C++ wrapper for IfcCoveringType
3080		struct IfcCoveringType : IfcBuildingElementType, ObjectHelper<IfcCoveringType,1> { IfcCoveringType() : Object("IfcCoveringType") {}
3081		IfcCoveringTypeEnum::Out PredefinedType;
3082		};
3083
3084		// C++ wrapper for IfcPumpType
3085		struct IfcPumpType : IfcFlowMovingDeviceType, ObjectHelper<IfcPumpType,1> { IfcPumpType() : Object("IfcPumpType") {}
3086		IfcPumpTypeEnum::Out PredefinedType;
	3267	// C++ wrapper for IfcCableSegmentType
	3268	struct IfcCableSegmentType : IfcFlowSegmentType, ObjectHelper<IfcCableSegmentType,1> { IfcCableSegmentType() : Object("IfcCableSegmentType") {}
	3269	IfcCableSegmentTypeEnum::Out PredefinedType;
	3270	};
	3271
	3272	// C++ wrapper for IfcRelOverridesProperties
	3273	struct IfcRelOverridesProperties : IfcRelDefinesByProperties, ObjectHelper<IfcRelOverridesProperties,1> { IfcRelOverridesProperties() : Object("IfcRelOverridesProperties") {}
	3274	ListOf< Lazy< IfcProperty >, 1, 0 > OverridingProperties;
	3275	};
	3276
	3277	// C++ wrapper for IfcMeasureWithUnit
	3278	struct IfcMeasureWithUnit : ObjectHelper<IfcMeasureWithUnit,2> { IfcMeasureWithUnit() : Object("IfcMeasureWithUnit") {}
	3279	IfcValue::Out ValueComponent;
	3280	IfcUnit::Out UnitComponent;
	3281	};
	3282
	3283	// C++ wrapper for IfcSlabType
	3284	struct IfcSlabType : IfcBuildingElementType, ObjectHelper<IfcSlabType,1> { IfcSlabType() : Object("IfcSlabType") {}
	3285	IfcSlabTypeEnum::Out PredefinedType;
	3286	};
	3287
	3288	// C++ wrapper for IfcServiceLife
	3289	struct IfcServiceLife : IfcControl, ObjectHelper<IfcServiceLife,2> { IfcServiceLife() : Object("IfcServiceLife") {}
	3290	IfcServiceLifeTypeEnum::Out ServiceLifeType;
	3291	IfcTimeMeasure::Out ServiceLifeDuration;
	3292	};
	3293
	3294	// C++ wrapper for IfcFurnitureType
	3295	struct IfcFurnitureType : IfcFurnishingElementType, ObjectHelper<IfcFurnitureType,1> { IfcFurnitureType() : Object("IfcFurnitureType") {}
	3296	IfcAssemblyPlaceEnum::Out AssemblyPlace;
	3297	};
	3298
	3299	// C++ wrapper for IfcCostItem
	3300	struct IfcCostItem : IfcControl, ObjectHelper<IfcCostItem,0> { IfcCostItem() : Object("IfcCostItem") {}
	3301
	3302	};
	3303
	3304	// C++ wrapper for IfcReinforcingMesh
	3305	struct IfcReinforcingMesh : IfcReinforcingElement, ObjectHelper<IfcReinforcingMesh,8> { IfcReinforcingMesh() : Object("IfcReinforcingMesh") {}
	3306	Maybe< IfcPositiveLengthMeasure::Out > MeshLength;
	3307	Maybe< IfcPositiveLengthMeasure::Out > MeshWidth;
	3308	IfcPositiveLengthMeasure::Out LongitudinalBarNominalDiameter;
	3309	IfcPositiveLengthMeasure::Out TransverseBarNominalDiameter;
	3310	IfcAreaMeasure::Out LongitudinalBarCrossSectionArea;
	3311	IfcAreaMeasure::Out TransverseBarCrossSectionArea;
	3312	IfcPositiveLengthMeasure::Out LongitudinalBarSpacing;
	3313	IfcPositiveLengthMeasure::Out TransverseBarSpacing;
	3314	};
	3315
	3316	// C++ wrapper for IfcFacetedBrepWithVoids
	3317	struct IfcFacetedBrepWithVoids : IfcManifoldSolidBrep, ObjectHelper<IfcFacetedBrepWithVoids,1> { IfcFacetedBrepWithVoids() : Object("IfcFacetedBrepWithVoids") {}
	3318	ListOf< Lazy< IfcClosedShell >, 1, 0 > Voids;
	3319	};
	3320
	3321	// C++ wrapper for IfcGasTerminalType
	3322	struct IfcGasTerminalType : IfcFlowTerminalType, ObjectHelper<IfcGasTerminalType,1> { IfcGasTerminalType() : Object("IfcGasTerminalType") {}
	3323	IfcGasTerminalTypeEnum::Out PredefinedType;
3087	3324	};
3088	3325
3089	3326	// C++ wrapper for IfcPile

3092	3329	Maybe< IfcPileConstructionEnum::Out > ConstructionType;
3093	3330	};
3094	3331
3095		// C++ wrapper for IfcUnitAssignment
3096		struct IfcUnitAssignment : ObjectHelper<IfcUnitAssignment,1> { IfcUnitAssignment() : Object("IfcUnitAssignment") {}
3097		ListOf< IfcUnit, 1, 0 >::Out Units;
3098		};
3099
3100		// C++ wrapper for IfcBoundingBox
3101		struct IfcBoundingBox : IfcGeometricRepresentationItem, ObjectHelper<IfcBoundingBox,4> { IfcBoundingBox() : Object("IfcBoundingBox") {}
3102		Lazy< IfcCartesianPoint > Corner;
3103		IfcPositiveLengthMeasure::Out XDim;
3104		IfcPositiveLengthMeasure::Out YDim;
3105		IfcPositiveLengthMeasure::Out ZDim;
3106		};
3107
3108		// C++ wrapper for IfcShellBasedSurfaceModel
3109		struct IfcShellBasedSurfaceModel : IfcGeometricRepresentationItem, ObjectHelper<IfcShellBasedSurfaceModel,1> { IfcShellBasedSurfaceModel() : Object("IfcShellBasedSurfaceModel") {}
3110		ListOf< IfcShell, 1, 0 >::Out SbsmBoundary;
3111		};
3112
3113		// C++ wrapper for IfcFacetedBrep
3114		struct IfcFacetedBrep : IfcManifoldSolidBrep, ObjectHelper<IfcFacetedBrep,0> { IfcFacetedBrep() : Object("IfcFacetedBrep") {}
3115
3116		};
3117
3118		// C++ wrapper for IfcTextLiteralWithExtent
3119		struct IfcTextLiteralWithExtent : IfcTextLiteral, ObjectHelper<IfcTextLiteralWithExtent,2> { IfcTextLiteralWithExtent() : Object("IfcTextLiteralWithExtent") {}
3120		Lazy< IfcPlanarExtent > Extent;
3121		IfcBoxAlignment::Out BoxAlignment;
3122		};
3123
3124		// C++ wrapper for IfcElectricApplianceType
3125		struct IfcElectricApplianceType : IfcFlowTerminalType, ObjectHelper<IfcElectricApplianceType,1> { IfcElectricApplianceType() : Object("IfcElectricApplianceType") {}
3126		IfcElectricApplianceTypeEnum::Out PredefinedType;
3127		};
3128
3129		// C++ wrapper for IfcTrapeziumProfileDef
3130		struct IfcTrapeziumProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcTrapeziumProfileDef,4> { IfcTrapeziumProfileDef() : Object("IfcTrapeziumProfileDef") {}
3131		IfcPositiveLengthMeasure::Out BottomXDim;
3132		IfcPositiveLengthMeasure::Out TopXDim;
3133		IfcPositiveLengthMeasure::Out YDim;
3134		IfcLengthMeasure::Out TopXOffset;
3135		};
3136
3137		// C++ wrapper for IfcRelContainedInSpatialStructure
3138		struct IfcRelContainedInSpatialStructure : IfcRelConnects, ObjectHelper<IfcRelContainedInSpatialStructure,2> { IfcRelContainedInSpatialStructure() : Object("IfcRelContainedInSpatialStructure") {}
3139		ListOf< Lazy< IfcProduct >, 1, 0 > RelatedElements;
3140		Lazy< IfcSpatialStructureElement > RelatingStructure;
3141		};
3142
3143		// C++ wrapper for IfcEdgeLoop
3144		struct IfcEdgeLoop : IfcLoop, ObjectHelper<IfcEdgeLoop,1> { IfcEdgeLoop() : Object("IfcEdgeLoop") {}
3145		ListOf< Lazy< IfcOrientedEdge >, 1, 0 > EdgeList;
3146		};
3147
3148		// C++ wrapper for IfcProject
3149		struct IfcProject : IfcObject, ObjectHelper<IfcProject,4> { IfcProject() : Object("IfcProject") {}
3150		Maybe< IfcLabel::Out > LongName;
3151		Maybe< IfcLabel::Out > Phase;
3152		ListOf< Lazy< IfcRepresentationContext >, 1, 0 > RepresentationContexts;
3153		Lazy< IfcUnitAssignment > UnitsInContext;
3154		};
3155
3156		// C++ wrapper for IfcCartesianPoint
3157		struct IfcCartesianPoint : IfcPoint, ObjectHelper<IfcCartesianPoint,1> { IfcCartesianPoint() : Object("IfcCartesianPoint") {}
3158		ListOf< IfcLengthMeasure, 1, 3 >::Out Coordinates;
3159		};
3160
3161		// C++ wrapper for IfcCurveBoundedPlane
3162		struct IfcCurveBoundedPlane : IfcBoundedSurface, ObjectHelper<IfcCurveBoundedPlane,3> { IfcCurveBoundedPlane() : Object("IfcCurveBoundedPlane") {}
3163		Lazy< IfcPlane > BasisSurface;
3164		Lazy< IfcCurve > OuterBoundary;
3165		ListOf< Lazy< IfcCurve >, 0, 0 > InnerBoundaries;
3166		};
3167
3168		// C++ wrapper for IfcWallType
3169		struct IfcWallType : IfcBuildingElementType, ObjectHelper<IfcWallType,1> { IfcWallType() : Object("IfcWallType") {}
3170		IfcWallTypeEnum::Out PredefinedType;
3171		};
3172
3173		// C++ wrapper for IfcFillAreaStyleHatching
3174		struct IfcFillAreaStyleHatching : IfcGeometricRepresentationItem, ObjectHelper<IfcFillAreaStyleHatching,5> { IfcFillAreaStyleHatching() : Object("IfcFillAreaStyleHatching") {}
3175		Lazy< NotImplemented > HatchLineAppearance;
3176		IfcHatchLineDistanceSelect::Out StartOfNextHatchLine;
3177		Maybe< Lazy< IfcCartesianPoint > > PointOfReferenceHatchLine;
3178		Maybe< Lazy< IfcCartesianPoint > > PatternStart;
3179		IfcPlaneAngleMeasure::Out HatchLineAngle;
3180		};
3181
3182		// C++ wrapper for IfcEquipmentStandard
3183		struct IfcEquipmentStandard : IfcControl, ObjectHelper<IfcEquipmentStandard,0> { IfcEquipmentStandard() : Object("IfcEquipmentStandard") {}
3184
3185		};
3186
3187		// C++ wrapper for IfcDiameterDimension
3188		struct IfcDiameterDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcDiameterDimension,0> { IfcDiameterDimension() : Object("IfcDiameterDimension") {}
3189
3190		};
3191
3192		// C++ wrapper for IfcStructuralLoadGroup
3193		struct IfcStructuralLoadGroup : IfcGroup, ObjectHelper<IfcStructuralLoadGroup,5> { IfcStructuralLoadGroup() : Object("IfcStructuralLoadGroup") {}
3194		IfcLoadGroupTypeEnum::Out PredefinedType;
3195		IfcActionTypeEnum::Out ActionType;
3196		IfcActionSourceTypeEnum::Out ActionSource;
3197		Maybe< IfcPositiveRatioMeasure::Out > Coefficient;
3198		Maybe< IfcLabel::Out > Purpose;
	3332	// C++ wrapper for IfcFillAreaStyleTileSymbolWithStyle
	3333	struct IfcFillAreaStyleTileSymbolWithStyle : IfcGeometricRepresentationItem, ObjectHelper<IfcFillAreaStyleTileSymbolWithStyle,1> { IfcFillAreaStyleTileSymbolWithStyle() : Object("IfcFillAreaStyleTileSymbolWithStyle") {}
	3334	Lazy< IfcAnnotationSymbolOccurrence > Symbol;
3199	3335	};
3200	3336
3201	3337	// C++ wrapper for IfcConstructionMaterialResource

3204	3340	Maybe< IfcRatioMeasure::Out > UsageRatio;
3205	3341	};
3206	3342
	3343	// C++ wrapper for IfcAnnotationCurveOccurrence
	3344	struct IfcAnnotationCurveOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationCurveOccurrence,0> { IfcAnnotationCurveOccurrence() : Object("IfcAnnotationCurveOccurrence") {}
	3345
	3346	};
	3347
	3348	// C++ wrapper for IfcDimensionCurve
	3349	struct IfcDimensionCurve : IfcAnnotationCurveOccurrence, ObjectHelper<IfcDimensionCurve,0> { IfcDimensionCurve() : Object("IfcDimensionCurve") {}
	3350
	3351	};
	3352
	3353	// C++ wrapper for IfcGeometricCurveSet
	3354	struct IfcGeometricCurveSet : IfcGeometricSet, ObjectHelper<IfcGeometricCurveSet,0> { IfcGeometricCurveSet() : Object("IfcGeometricCurveSet") {}
	3355
	3356	};
	3357
3207	3358	// C++ wrapper for IfcRelAggregates
3208	3359	struct IfcRelAggregates : IfcRelDecomposes, ObjectHelper<IfcRelAggregates,0> { IfcRelAggregates() : Object("IfcRelAggregates") {}
3209	3360
	3361	};
	3362
	3363	// C++ wrapper for IfcFaceBasedSurfaceModel
	3364	struct IfcFaceBasedSurfaceModel : IfcGeometricRepresentationItem, ObjectHelper<IfcFaceBasedSurfaceModel,1> { IfcFaceBasedSurfaceModel() : Object("IfcFaceBasedSurfaceModel") {}
	3365	ListOf< Lazy< IfcConnectedFaceSet >, 1, 0 > FbsmFaces;
	3366	};
	3367
	3368	// C++ wrapper for IfcEnergyConversionDevice
	3369	struct IfcEnergyConversionDevice : IfcDistributionFlowElement, ObjectHelper<IfcEnergyConversionDevice,0> { IfcEnergyConversionDevice() : Object("IfcEnergyConversionDevice") {}
	3370
	3371	};
	3372
	3373	// C++ wrapper for IfcRampFlight
	3374	struct IfcRampFlight : IfcBuildingElement, ObjectHelper<IfcRampFlight,0> { IfcRampFlight() : Object("IfcRampFlight") {}
	3375
	3376	};
	3377
	3378	// C++ wrapper for IfcVertexLoop
	3379	struct IfcVertexLoop : IfcLoop, ObjectHelper<IfcVertexLoop,1> { IfcVertexLoop() : Object("IfcVertexLoop") {}
	3380	Lazy< IfcVertex > LoopVertex;
	3381	};
	3382
	3383	// C++ wrapper for IfcPlate
	3384	struct IfcPlate : IfcBuildingElement, ObjectHelper<IfcPlate,0> { IfcPlate() : Object("IfcPlate") {}
	3385
	3386	};
	3387
	3388	// C++ wrapper for IfcUShapeProfileDef
	3389	struct IfcUShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcUShapeProfileDef,8> { IfcUShapeProfileDef() : Object("IfcUShapeProfileDef") {}
	3390	IfcPositiveLengthMeasure::Out Depth;
	3391	IfcPositiveLengthMeasure::Out FlangeWidth;
	3392	IfcPositiveLengthMeasure::Out WebThickness;
	3393	IfcPositiveLengthMeasure::Out FlangeThickness;
	3394	Maybe< IfcPositiveLengthMeasure::Out > FilletRadius;
	3395	Maybe< IfcPositiveLengthMeasure::Out > EdgeRadius;
	3396	Maybe< IfcPlaneAngleMeasure::Out > FlangeSlope;
	3397	Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInX;
	3398	};
	3399
	3400	// C++ wrapper for IfcFaceBound
	3401	struct IfcFaceBound : IfcTopologicalRepresentationItem, ObjectHelper<IfcFaceBound,2> { IfcFaceBound() : Object("IfcFaceBound") {}
	3402	Lazy< IfcLoop > Bound;
	3403	BOOLEAN::Out Orientation;
	3404	};
	3405
	3406	// C++ wrapper for IfcFaceOuterBound
	3407	struct IfcFaceOuterBound : IfcFaceBound, ObjectHelper<IfcFaceOuterBound,0> { IfcFaceOuterBound() : Object("IfcFaceOuterBound") {}
	3408
	3409	};
	3410
	3411	// C++ wrapper for IfcOneDirectionRepeatFactor
	3412	struct IfcOneDirectionRepeatFactor : IfcGeometricRepresentationItem, ObjectHelper<IfcOneDirectionRepeatFactor,1> { IfcOneDirectionRepeatFactor() : Object("IfcOneDirectionRepeatFactor") {}
	3413	Lazy< IfcVector > RepeatFactor;
3210	3414	};
3211	3415
3212	3416	// C++ wrapper for IfcBoilerType

3214	3418	IfcBoilerTypeEnum::Out PredefinedType;
3215	3419	};
3216	3420
3217		// C++ wrapper for IfcColourSpecification
3218		struct IfcColourSpecification : ObjectHelper<IfcColourSpecification,1> { IfcColourSpecification() : Object("IfcColourSpecification") {}
3219		Maybe< IfcLabel::Out > Name;
3220		};
3221
3222		// C++ wrapper for IfcColourRgb
3223		struct IfcColourRgb : IfcColourSpecification, ObjectHelper<IfcColourRgb,3> { IfcColourRgb() : Object("IfcColourRgb") {}
3224		IfcNormalisedRatioMeasure::Out Red;
3225		IfcNormalisedRatioMeasure::Out Green;
3226		IfcNormalisedRatioMeasure::Out Blue;
	3421	// C++ wrapper for IfcConstructionEquipmentResource
	3422	struct IfcConstructionEquipmentResource : IfcConstructionResource, ObjectHelper<IfcConstructionEquipmentResource,0> { IfcConstructionEquipmentResource() : Object("IfcConstructionEquipmentResource") {}
	3423
	3424	};
	3425
	3426	// C++ wrapper for IfcComplexProperty
	3427	struct IfcComplexProperty : IfcProperty, ObjectHelper<IfcComplexProperty,2> { IfcComplexProperty() : Object("IfcComplexProperty") {}
	3428	IfcIdentifier::Out UsageName;
	3429	ListOf< Lazy< IfcProperty >, 1, 0 > HasProperties;
	3430	};
	3431
	3432	// C++ wrapper for IfcFooting
	3433	struct IfcFooting : IfcBuildingElement, ObjectHelper<IfcFooting,1> { IfcFooting() : Object("IfcFooting") {}
	3434	IfcFootingTypeEnum::Out PredefinedType;
	3435	};
	3436
	3437	// C++ wrapper for IfcConstructionProductResource
	3438	struct IfcConstructionProductResource : IfcConstructionResource, ObjectHelper<IfcConstructionProductResource,0> { IfcConstructionProductResource() : Object("IfcConstructionProductResource") {}
	3439
	3440	};
	3441
	3442	// C++ wrapper for IfcDerivedProfileDef
	3443	struct IfcDerivedProfileDef : IfcProfileDef, ObjectHelper<IfcDerivedProfileDef,3> { IfcDerivedProfileDef() : Object("IfcDerivedProfileDef") {}
	3444	Lazy< IfcProfileDef > ParentProfile;
	3445	Lazy< IfcCartesianTransformationOperator2D > Operator;
	3446	Maybe< IfcLabel::Out > Label;
	3447	};
	3448
	3449	// C++ wrapper for IfcPropertyTableValue
	3450	struct IfcPropertyTableValue : IfcSimpleProperty, ObjectHelper<IfcPropertyTableValue,5> { IfcPropertyTableValue() : Object("IfcPropertyTableValue") {}
	3451	ListOf< IfcValue, 1, 0 >::Out DefiningValues;
	3452	ListOf< IfcValue, 1, 0 >::Out DefinedValues;
	3453	Maybe< IfcText::Out > Expression;
	3454	Maybe< IfcUnit::Out > DefiningUnit;
	3455	Maybe< IfcUnit::Out > DefinedUnit;
	3456	};
	3457
	3458	// C++ wrapper for IfcFlowMeterType
	3459	struct IfcFlowMeterType : IfcFlowControllerType, ObjectHelper<IfcFlowMeterType,1> { IfcFlowMeterType() : Object("IfcFlowMeterType") {}
	3460	IfcFlowMeterTypeEnum::Out PredefinedType;
3227	3461	};
3228	3462
3229	3463	// C++ wrapper for IfcDoorStyle

3234	3468	BOOLEAN::Out Sizeable;
3235	3469	};
3236	3470
3237		// C++ wrapper for IfcDuctSilencerType
3238		struct IfcDuctSilencerType : IfcFlowTreatmentDeviceType, ObjectHelper<IfcDuctSilencerType,1> { IfcDuctSilencerType() : Object("IfcDuctSilencerType") {}
3239		IfcDuctSilencerTypeEnum::Out PredefinedType;
3240		};
3241
3242		// C++ wrapper for IfcLightSourceGoniometric
3243		struct IfcLightSourceGoniometric : IfcLightSource, ObjectHelper<IfcLightSourceGoniometric,6> { IfcLightSourceGoniometric() : Object("IfcLightSourceGoniometric") {}
3244		Lazy< IfcAxis2Placement3D > Position;
3245		Maybe< Lazy< IfcColourRgb > > ColourAppearance;
3246		IfcThermodynamicTemperatureMeasure::Out ColourTemperature;
3247		IfcLuminousFluxMeasure::Out LuminousFlux;
3248		IfcLightEmissionSourceEnum::Out LightEmissionSource;
3249		IfcLightDistributionDataSourceSelect::Out LightDistributionDataSource;
3250		};
3251
3252		// C++ wrapper for IfcActuatorType
3253		struct IfcActuatorType : IfcDistributionControlElementType, ObjectHelper<IfcActuatorType,1> { IfcActuatorType() : Object("IfcActuatorType") {}
3254		IfcActuatorTypeEnum::Out PredefinedType;
3255		};
3256
3257		// C++ wrapper for IfcSensorType
3258		struct IfcSensorType : IfcDistributionControlElementType, ObjectHelper<IfcSensorType,1> { IfcSensorType() : Object("IfcSensorType") {}
3259		IfcSensorTypeEnum::Out PredefinedType;
3260		};
3261
3262		// C++ wrapper for IfcAirTerminalBoxType
3263		struct IfcAirTerminalBoxType : IfcFlowControllerType, ObjectHelper<IfcAirTerminalBoxType,1> { IfcAirTerminalBoxType() : Object("IfcAirTerminalBoxType") {}
3264		IfcAirTerminalBoxTypeEnum::Out PredefinedType;
3265		};
3266
3267		// C++ wrapper for IfcAnnotationSurfaceOccurrence
3268		struct IfcAnnotationSurfaceOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationSurfaceOccurrence,0> { IfcAnnotationSurfaceOccurrence() : Object("IfcAnnotationSurfaceOccurrence") {}
3269
3270		};
3271
3272		// C++ wrapper for IfcZShapeProfileDef
3273		struct IfcZShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcZShapeProfileDef,6> { IfcZShapeProfileDef() : Object("IfcZShapeProfileDef") {}
3274		IfcPositiveLengthMeasure::Out Depth;
3275		IfcPositiveLengthMeasure::Out FlangeWidth;
3276		IfcPositiveLengthMeasure::Out WebThickness;
3277		IfcPositiveLengthMeasure::Out FlangeThickness;
3278		Maybe< IfcPositiveLengthMeasure::Out > FilletRadius;
3279		Maybe< IfcPositiveLengthMeasure::Out > EdgeRadius;
3280		};
3281
3282		// C++ wrapper for IfcRationalBezierCurve
3283		struct IfcRationalBezierCurve : IfcBezierCurve, ObjectHelper<IfcRationalBezierCurve,1> { IfcRationalBezierCurve() : Object("IfcRationalBezierCurve") {}
3284		ListOf< REAL, 2, 0 >::Out WeightsData;
3285		};
3286
3287		// C++ wrapper for IfcCartesianTransformationOperator2D
3288		struct IfcCartesianTransformationOperator2D : IfcCartesianTransformationOperator, ObjectHelper<IfcCartesianTransformationOperator2D,0> { IfcCartesianTransformationOperator2D() : Object("IfcCartesianTransformationOperator2D") {}
3289
3290		};
3291
3292		// C++ wrapper for IfcCartesianTransformationOperator2DnonUniform
3293		struct IfcCartesianTransformationOperator2DnonUniform : IfcCartesianTransformationOperator2D, ObjectHelper<IfcCartesianTransformationOperator2DnonUniform,1> { IfcCartesianTransformationOperator2DnonUniform() : Object("IfcCartesianTransformationOperator2DnonUniform") {}
3294		Maybe< REAL::Out > Scale2;
3295		};
3296
3297		// C++ wrapper for IfcMove
3298		struct IfcMove : IfcTask, ObjectHelper<IfcMove,3> { IfcMove() : Object("IfcMove") {}
3299		Lazy< IfcSpatialStructureElement > MoveFrom;
3300		Lazy< IfcSpatialStructureElement > MoveTo;
3301		Maybe< ListOf< IfcText, 1, 0 >::Out > PunchList;
3302		};
3303
3304		// C++ wrapper for IfcCableCarrierSegmentType
3305		struct IfcCableCarrierSegmentType : IfcFlowSegmentType, ObjectHelper<IfcCableCarrierSegmentType,1> { IfcCableCarrierSegmentType() : Object("IfcCableCarrierSegmentType") {}
3306		IfcCableCarrierSegmentTypeEnum::Out PredefinedType;
3307		};
3308
3309		// C++ wrapper for IfcElectricalElement
3310		struct IfcElectricalElement : IfcElement, ObjectHelper<IfcElectricalElement,0> { IfcElectricalElement() : Object("IfcElectricalElement") {}
3311
3312		};
3313
3314		// C++ wrapper for IfcChillerType
3315		struct IfcChillerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcChillerType,1> { IfcChillerType() : Object("IfcChillerType") {}
3316		IfcChillerTypeEnum::Out PredefinedType;
3317		};
3318
3319		// C++ wrapper for IfcReinforcingBar
3320		struct IfcReinforcingBar : IfcReinforcingElement, ObjectHelper<IfcReinforcingBar,5> { IfcReinforcingBar() : Object("IfcReinforcingBar") {}
3321		IfcPositiveLengthMeasure::Out NominalDiameter;
3322		IfcAreaMeasure::Out CrossSectionArea;
3323		Maybe< IfcPositiveLengthMeasure::Out > BarLength;
3324		IfcReinforcingBarRoleEnum::Out BarRole;
3325		Maybe< IfcReinforcingBarSurfaceEnum::Out > BarSurface;
3326		};
3327
3328		// C++ wrapper for IfcCShapeProfileDef
3329		struct IfcCShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcCShapeProfileDef,6> { IfcCShapeProfileDef() : Object("IfcCShapeProfileDef") {}
3330		IfcPositiveLengthMeasure::Out Depth;
3331		IfcPositiveLengthMeasure::Out Width;
3332		IfcPositiveLengthMeasure::Out WallThickness;
3333		IfcPositiveLengthMeasure::Out Girth;
3334		Maybe< IfcPositiveLengthMeasure::Out > InternalFilletRadius;
3335		Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInX;
3336		};
3337
3338		// C++ wrapper for IfcPermit
3339		struct IfcPermit : IfcControl, ObjectHelper<IfcPermit,1> { IfcPermit() : Object("IfcPermit") {}
3340		IfcIdentifier::Out PermitID;
3341		};
3342
3343		// C++ wrapper for IfcSlabType
3344		struct IfcSlabType : IfcBuildingElementType, ObjectHelper<IfcSlabType,1> { IfcSlabType() : Object("IfcSlabType") {}
3345		IfcSlabTypeEnum::Out PredefinedType;
3346		};
3347
3348		// C++ wrapper for IfcLampType
3349		struct IfcLampType : IfcFlowTerminalType, ObjectHelper<IfcLampType,1> { IfcLampType() : Object("IfcLampType") {}
3350		IfcLampTypeEnum::Out PredefinedType;
3351		};
3352
3353		// C++ wrapper for IfcPlanarExtent
3354		struct IfcPlanarExtent : IfcGeometricRepresentationItem, ObjectHelper<IfcPlanarExtent,2> { IfcPlanarExtent() : Object("IfcPlanarExtent") {}
3355		IfcLengthMeasure::Out SizeInX;
3356		IfcLengthMeasure::Out SizeInY;
3357		};
3358
3359		// C++ wrapper for IfcAlarmType
3360		struct IfcAlarmType : IfcDistributionControlElementType, ObjectHelper<IfcAlarmType,1> { IfcAlarmType() : Object("IfcAlarmType") {}
3361		IfcAlarmTypeEnum::Out PredefinedType;
3362		};
3363
3364		// C++ wrapper for IfcElectricFlowStorageDeviceType
3365		struct IfcElectricFlowStorageDeviceType : IfcFlowStorageDeviceType, ObjectHelper<IfcElectricFlowStorageDeviceType,1> { IfcElectricFlowStorageDeviceType() : Object("IfcElectricFlowStorageDeviceType") {}
3366		IfcElectricFlowStorageDeviceTypeEnum::Out PredefinedType;
3367		};
3368
3369		// C++ wrapper for IfcEquipmentElement
3370		struct IfcEquipmentElement : IfcElement, ObjectHelper<IfcEquipmentElement,0> { IfcEquipmentElement() : Object("IfcEquipmentElement") {}
3371
3372		};
3373
3374		// C++ wrapper for IfcLightFixtureType
3375		struct IfcLightFixtureType : IfcFlowTerminalType, ObjectHelper<IfcLightFixtureType,1> { IfcLightFixtureType() : Object("IfcLightFixtureType") {}
3376		IfcLightFixtureTypeEnum::Out PredefinedType;
3377		};
3378
3379		// C++ wrapper for IfcCurtainWall
3380		struct IfcCurtainWall : IfcBuildingElement, ObjectHelper<IfcCurtainWall,0> { IfcCurtainWall() : Object("IfcCurtainWall") {}
3381
3382		};
3383
3384		// C++ wrapper for IfcSlab
3385		struct IfcSlab : IfcBuildingElement, ObjectHelper<IfcSlab,1> { IfcSlab() : Object("IfcSlab") {}
3386		Maybe< IfcSlabTypeEnum::Out > PredefinedType;
3387		};
3388
3389		// C++ wrapper for IfcCurtainWallType
3390		struct IfcCurtainWallType : IfcBuildingElementType, ObjectHelper<IfcCurtainWallType,1> { IfcCurtainWallType() : Object("IfcCurtainWallType") {}
3391		IfcCurtainWallTypeEnum::Out PredefinedType;
3392		};
3393
3394		// C++ wrapper for IfcOutletType
3395		struct IfcOutletType : IfcFlowTerminalType, ObjectHelper<IfcOutletType,1> { IfcOutletType() : Object("IfcOutletType") {}
3396		IfcOutletTypeEnum::Out PredefinedType;
3397		};
3398
3399		// C++ wrapper for IfcCompressorType
3400		struct IfcCompressorType : IfcFlowMovingDeviceType, ObjectHelper<IfcCompressorType,1> { IfcCompressorType() : Object("IfcCompressorType") {}
3401		IfcCompressorTypeEnum::Out PredefinedType;
3402		};
3403
3404		// C++ wrapper for IfcCraneRailAShapeProfileDef
3405		struct IfcCraneRailAShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcCraneRailAShapeProfileDef,12> { IfcCraneRailAShapeProfileDef() : Object("IfcCraneRailAShapeProfileDef") {}
3406		IfcPositiveLengthMeasure::Out OverallHeight;
3407		IfcPositiveLengthMeasure::Out BaseWidth2;
3408		Maybe< IfcPositiveLengthMeasure::Out > Radius;
3409		IfcPositiveLengthMeasure::Out HeadWidth;
3410		IfcPositiveLengthMeasure::Out HeadDepth2;
3411		IfcPositiveLengthMeasure::Out HeadDepth3;
3412		IfcPositiveLengthMeasure::Out WebThickness;
3413		IfcPositiveLengthMeasure::Out BaseWidth4;
3414		IfcPositiveLengthMeasure::Out BaseDepth1;
3415		IfcPositiveLengthMeasure::Out BaseDepth2;
3416		IfcPositiveLengthMeasure::Out BaseDepth3;
3417		Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY;
3418		};
3419
3420		// C++ wrapper for IfcFlowSegment
3421		struct IfcFlowSegment : IfcDistributionFlowElement, ObjectHelper<IfcFlowSegment,0> { IfcFlowSegment() : Object("IfcFlowSegment") {}
3422
3423		};
3424
3425		// C++ wrapper for IfcSectionedSpine
3426		struct IfcSectionedSpine : IfcGeometricRepresentationItem, ObjectHelper<IfcSectionedSpine,3> { IfcSectionedSpine() : Object("IfcSectionedSpine") {}
3427		Lazy< IfcCompositeCurve > SpineCurve;
3428		ListOf< Lazy< IfcProfileDef >, 2, 0 > CrossSections;
3429		ListOf< Lazy< IfcAxis2Placement3D >, 2, 0 > CrossSectionPositions;
3430		};
3431
3432		// C++ wrapper for IfcElectricTimeControlType
3433		struct IfcElectricTimeControlType : IfcFlowControllerType, ObjectHelper<IfcElectricTimeControlType,1> { IfcElectricTimeControlType() : Object("IfcElectricTimeControlType") {}
3434		IfcElectricTimeControlTypeEnum::Out PredefinedType;
3435		};
3436
3437		// C++ wrapper for IfcFaceSurface
3438		struct IfcFaceSurface : IfcFace, ObjectHelper<IfcFaceSurface,2> { IfcFaceSurface() : Object("IfcFaceSurface") {}
3439		Lazy< IfcSurface > FaceSurface;
3440		BOOLEAN::Out SameSense;
3441		};
3442
3443		// C++ wrapper for IfcMotorConnectionType
3444		struct IfcMotorConnectionType : IfcEnergyConversionDeviceType, ObjectHelper<IfcMotorConnectionType,1> { IfcMotorConnectionType() : Object("IfcMotorConnectionType") {}
3445		IfcMotorConnectionTypeEnum::Out PredefinedType;
3446		};
3447
3448		// C++ wrapper for IfcFlowFitting
3449		struct IfcFlowFitting : IfcDistributionFlowElement, ObjectHelper<IfcFlowFitting,0> { IfcFlowFitting() : Object("IfcFlowFitting") {}
3450
3451		};
3452
3453		// C++ wrapper for IfcPointOnCurve
3454		struct IfcPointOnCurve : IfcPoint, ObjectHelper<IfcPointOnCurve,2> { IfcPointOnCurve() : Object("IfcPointOnCurve") {}
3455		Lazy< IfcCurve > BasisCurve;
3456		IfcParameterValue::Out PointParameter;
3457		};
3458
3459		// C++ wrapper for IfcTransportElementType
3460		struct IfcTransportElementType : IfcElementType, ObjectHelper<IfcTransportElementType,1> { IfcTransportElementType() : Object("IfcTransportElementType") {}
3461		IfcTransportElementTypeEnum::Out PredefinedType;
3462		};
3463
3464		// C++ wrapper for IfcCableSegmentType
3465		struct IfcCableSegmentType : IfcFlowSegmentType, ObjectHelper<IfcCableSegmentType,1> { IfcCableSegmentType() : Object("IfcCableSegmentType") {}
3466		IfcCableSegmentTypeEnum::Out PredefinedType;
3467		};
3468
3469		// C++ wrapper for IfcAnnotationSurface
3470		struct IfcAnnotationSurface : IfcGeometricRepresentationItem, ObjectHelper<IfcAnnotationSurface,2> { IfcAnnotationSurface() : Object("IfcAnnotationSurface") {}
3471		Lazy< IfcGeometricRepresentationItem > Item;
3472		Maybe< Lazy< NotImplemented > > TextureCoordinates;
3473		};
3474
3475		// C++ wrapper for IfcCompositeCurveSegment
3476		struct IfcCompositeCurveSegment : IfcGeometricRepresentationItem, ObjectHelper<IfcCompositeCurveSegment,3> { IfcCompositeCurveSegment() : Object("IfcCompositeCurveSegment") {}
3477		IfcTransitionCode::Out Transition;
3478		BOOLEAN::Out SameSense;
3479		Lazy< IfcCurve > ParentCurve;
3480		};
3481
3482		// C++ wrapper for IfcServiceLife
3483		struct IfcServiceLife : IfcControl, ObjectHelper<IfcServiceLife,2> { IfcServiceLife() : Object("IfcServiceLife") {}
3484		IfcServiceLifeTypeEnum::Out ServiceLifeType;
3485		IfcTimeMeasure::Out ServiceLifeDuration;
3486		};
3487
3488		// C++ wrapper for IfcPlateType
3489		struct IfcPlateType : IfcBuildingElementType, ObjectHelper<IfcPlateType,1> { IfcPlateType() : Object("IfcPlateType") {}
3490		IfcPlateTypeEnum::Out PredefinedType;
3491		};
3492
3493		// C++ wrapper for IfcVibrationIsolatorType
3494		struct IfcVibrationIsolatorType : IfcDiscreteAccessoryType, ObjectHelper<IfcVibrationIsolatorType,1> { IfcVibrationIsolatorType() : Object("IfcVibrationIsolatorType") {}
3495		IfcVibrationIsolatorTypeEnum::Out PredefinedType;
3496		};
3497
3498		// C++ wrapper for IfcTrimmedCurve
3499		struct IfcTrimmedCurve : IfcBoundedCurve, ObjectHelper<IfcTrimmedCurve,5> { IfcTrimmedCurve() : Object("IfcTrimmedCurve") {}
3500		Lazy< IfcCurve > BasisCurve;
3501		ListOf< IfcTrimmingSelect, 1, 2 >::Out Trim1;
3502		ListOf< IfcTrimmingSelect, 1, 2 >::Out Trim2;
3503		BOOLEAN::Out SenseAgreement;
3504		IfcTrimmingPreference::Out MasterRepresentation;
3505		};
3506
3507		// C++ wrapper for IfcMappedItem
3508		struct IfcMappedItem : IfcRepresentationItem, ObjectHelper<IfcMappedItem,2> { IfcMappedItem() : Object("IfcMappedItem") {}
3509		Lazy< IfcRepresentationMap > MappingSource;
3510		Lazy< IfcCartesianTransformationOperator > MappingTarget;
3511		};
3512
3513		// C++ wrapper for IfcDirection
3514		struct IfcDirection : IfcGeometricRepresentationItem, ObjectHelper<IfcDirection,1> { IfcDirection() : Object("IfcDirection") {}
3515		ListOf< REAL, 2, 3 >::Out DirectionRatios;
3516		};
3517
3518		// C++ wrapper for IfcBlock
3519		struct IfcBlock : IfcCsgPrimitive3D, ObjectHelper<IfcBlock,3> { IfcBlock() : Object("IfcBlock") {}
3520		IfcPositiveLengthMeasure::Out XLength;
3521		IfcPositiveLengthMeasure::Out YLength;
3522		IfcPositiveLengthMeasure::Out ZLength;
3523		};
3524
3525		// C++ wrapper for IfcProjectOrderRecord
3526		struct IfcProjectOrderRecord : IfcControl, ObjectHelper<IfcProjectOrderRecord,2> { IfcProjectOrderRecord() : Object("IfcProjectOrderRecord") {}
3527		ListOf< Lazy< NotImplemented >, 1, 0 > Records;
3528		IfcProjectOrderRecordTypeEnum::Out PredefinedType;
3529		};
3530
3531		// C++ wrapper for IfcFlowMeterType
3532		struct IfcFlowMeterType : IfcFlowControllerType, ObjectHelper<IfcFlowMeterType,1> { IfcFlowMeterType() : Object("IfcFlowMeterType") {}
3533		IfcFlowMeterTypeEnum::Out PredefinedType;
3534		};
3535
3536		// C++ wrapper for IfcControllerType
3537		struct IfcControllerType : IfcDistributionControlElementType, ObjectHelper<IfcControllerType,1> { IfcControllerType() : Object("IfcControllerType") {}
3538		IfcControllerTypeEnum::Out PredefinedType;
3539		};
3540
3541		// C++ wrapper for IfcBeam
3542		struct IfcBeam : IfcBuildingElement, ObjectHelper<IfcBeam,0> { IfcBeam() : Object("IfcBeam") {}
3543
3544		};
3545
3546		// C++ wrapper for IfcArbitraryOpenProfileDef
3547		struct IfcArbitraryOpenProfileDef : IfcProfileDef, ObjectHelper<IfcArbitraryOpenProfileDef,1> { IfcArbitraryOpenProfileDef() : Object("IfcArbitraryOpenProfileDef") {}
3548		Lazy< IfcBoundedCurve > Curve;
3549		};
3550
3551		// C++ wrapper for IfcCenterLineProfileDef
3552		struct IfcCenterLineProfileDef : IfcArbitraryOpenProfileDef, ObjectHelper<IfcCenterLineProfileDef,1> { IfcCenterLineProfileDef() : Object("IfcCenterLineProfileDef") {}
3553		IfcPositiveLengthMeasure::Out Thickness;
3554		};
3555
3556		// C++ wrapper for IfcTimeSeriesSchedule
3557		struct IfcTimeSeriesSchedule : IfcControl, ObjectHelper<IfcTimeSeriesSchedule,3> { IfcTimeSeriesSchedule() : Object("IfcTimeSeriesSchedule") {}
3558		Maybe< ListOf< IfcDateTimeSelect, 1, 0 >::Out > ApplicableDates;
3559		IfcTimeSeriesScheduleTypeEnum::Out TimeSeriesScheduleType;
3560		Lazy< NotImplemented > TimeSeries;
3561		};
3562
3563		// C++ wrapper for IfcRoundedEdgeFeature
3564		struct IfcRoundedEdgeFeature : IfcEdgeFeature, ObjectHelper<IfcRoundedEdgeFeature,1> { IfcRoundedEdgeFeature() : Object("IfcRoundedEdgeFeature") {}
3565		Maybe< IfcPositiveLengthMeasure::Out > Radius;
3566		};
3567
3568		// C++ wrapper for IfcIShapeProfileDef
3569		struct IfcIShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcIShapeProfileDef,5> { IfcIShapeProfileDef() : Object("IfcIShapeProfileDef") {}
3570		IfcPositiveLengthMeasure::Out OverallWidth;
3571		IfcPositiveLengthMeasure::Out OverallDepth;
3572		IfcPositiveLengthMeasure::Out WebThickness;
3573		IfcPositiveLengthMeasure::Out FlangeThickness;
3574		Maybe< IfcPositiveLengthMeasure::Out > FilletRadius;
3575		};
3576
3577		// C++ wrapper for IfcSpaceHeaterType
3578		struct IfcSpaceHeaterType : IfcEnergyConversionDeviceType, ObjectHelper<IfcSpaceHeaterType,1> { IfcSpaceHeaterType() : Object("IfcSpaceHeaterType") {}
3579		IfcSpaceHeaterTypeEnum::Out PredefinedType;
3580		};
3581
3582		// C++ wrapper for IfcFlowStorageDevice
3583		struct IfcFlowStorageDevice : IfcDistributionFlowElement, ObjectHelper<IfcFlowStorageDevice,0> { IfcFlowStorageDevice() : Object("IfcFlowStorageDevice") {}
3584
3585		};
3586
3587		// C++ wrapper for IfcRevolvedAreaSolid
3588		struct IfcRevolvedAreaSolid : IfcSweptAreaSolid, ObjectHelper<IfcRevolvedAreaSolid,2> { IfcRevolvedAreaSolid() : Object("IfcRevolvedAreaSolid") {}
3589		Lazy< IfcAxis1Placement > Axis;
3590		IfcPlaneAngleMeasure::Out Angle;
3591		};
3592
3593		// C++ wrapper for IfcDoor
3594		struct IfcDoor : IfcBuildingElement, ObjectHelper<IfcDoor,2> { IfcDoor() : Object("IfcDoor") {}
3595		Maybe< IfcPositiveLengthMeasure::Out > OverallHeight;
3596		Maybe< IfcPositiveLengthMeasure::Out > OverallWidth;
3597		};
3598
3599		// C++ wrapper for IfcEllipse
3600		struct IfcEllipse : IfcConic, ObjectHelper<IfcEllipse,2> { IfcEllipse() : Object("IfcEllipse") {}
3601		IfcPositiveLengthMeasure::Out SemiAxis1;
3602		IfcPositiveLengthMeasure::Out SemiAxis2;
3603		};
3604
3605		// C++ wrapper for IfcTubeBundleType
3606		struct IfcTubeBundleType : IfcEnergyConversionDeviceType, ObjectHelper<IfcTubeBundleType,1> { IfcTubeBundleType() : Object("IfcTubeBundleType") {}
3607		IfcTubeBundleTypeEnum::Out PredefinedType;
3608		};
3609
3610		// C++ wrapper for IfcAngularDimension
3611		struct IfcAngularDimension : IfcDimensionCurveDirectedCallout, ObjectHelper<IfcAngularDimension,0> { IfcAngularDimension() : Object("IfcAngularDimension") {}
3612
3613		};
3614
3615		// C++ wrapper for IfcFaceBasedSurfaceModel
3616		struct IfcFaceBasedSurfaceModel : IfcGeometricRepresentationItem, ObjectHelper<IfcFaceBasedSurfaceModel,1> { IfcFaceBasedSurfaceModel() : Object("IfcFaceBasedSurfaceModel") {}
3617		ListOf< Lazy< IfcConnectedFaceSet >, 1, 0 > FbsmFaces;
	3471	// C++ wrapper for IfcUnitAssignment
	3472	struct IfcUnitAssignment : ObjectHelper<IfcUnitAssignment,1> { IfcUnitAssignment() : Object("IfcUnitAssignment") {}
	3473	ListOf< IfcUnit, 1, 0 >::Out Units;
	3474	};
	3475
	3476	// C++ wrapper for IfcFlowTerminal
	3477	struct IfcFlowTerminal : IfcDistributionFlowElement, ObjectHelper<IfcFlowTerminal,0> { IfcFlowTerminal() : Object("IfcFlowTerminal") {}
	3478
3618	3479	};
3619	3480
3620	3481	// C++ wrapper for IfcCraneRailFShapeProfileDef

3630	3491	Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY;
3631	3492	};
3632	3493
3633		// C++ wrapper for IfcColumnType
3634		struct IfcColumnType : IfcBuildingElementType, ObjectHelper<IfcColumnType,1> { IfcColumnType() : Object("IfcColumnType") {}
3635		IfcColumnTypeEnum::Out PredefinedType;
3636		};
3637
3638		// C++ wrapper for IfcTShapeProfileDef
3639		struct IfcTShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcTShapeProfileDef,10> { IfcTShapeProfileDef() : Object("IfcTShapeProfileDef") {}
3640		IfcPositiveLengthMeasure::Out Depth;
3641		IfcPositiveLengthMeasure::Out FlangeWidth;
3642		IfcPositiveLengthMeasure::Out WebThickness;
3643		IfcPositiveLengthMeasure::Out FlangeThickness;
3644		Maybe< IfcPositiveLengthMeasure::Out > FilletRadius;
3645		Maybe< IfcPositiveLengthMeasure::Out > FlangeEdgeRadius;
3646		Maybe< IfcPositiveLengthMeasure::Out > WebEdgeRadius;
3647		Maybe< IfcPlaneAngleMeasure::Out > WebSlope;
3648		Maybe< IfcPlaneAngleMeasure::Out > FlangeSlope;
3649		Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY;
3650		};
3651
3652		// C++ wrapper for IfcEnergyConversionDevice
3653		struct IfcEnergyConversionDevice : IfcDistributionFlowElement, ObjectHelper<IfcEnergyConversionDevice,0> { IfcEnergyConversionDevice() : Object("IfcEnergyConversionDevice") {}
3654
3655		};
3656
3657		// C++ wrapper for IfcWorkSchedule
3658		struct IfcWorkSchedule : IfcWorkControl, ObjectHelper<IfcWorkSchedule,0> { IfcWorkSchedule() : Object("IfcWorkSchedule") {}
3659
3660		};
3661
3662		// C++ wrapper for IfcZone
3663		struct IfcZone : IfcGroup, ObjectHelper<IfcZone,0> { IfcZone() : Object("IfcZone") {}
3664
3665		};
3666
3667		// C++ wrapper for IfcTransportElement
3668		struct IfcTransportElement : IfcElement, ObjectHelper<IfcTransportElement,3> { IfcTransportElement() : Object("IfcTransportElement") {}
3669		Maybe< IfcTransportElementTypeEnum::Out > OperationType;
3670		Maybe< IfcMassMeasure::Out > CapacityByWeight;
3671		Maybe< IfcCountMeasure::Out > CapacityByNumber;
3672		};
3673
3674		// C++ wrapper for IfcGeometricRepresentationSubContext
3675		struct IfcGeometricRepresentationSubContext : IfcGeometricRepresentationContext, ObjectHelper<IfcGeometricRepresentationSubContext,4> { IfcGeometricRepresentationSubContext() : Object("IfcGeometricRepresentationSubContext") {}
3676		Lazy< IfcGeometricRepresentationContext > ParentContext;
3677		Maybe< IfcPositiveRatioMeasure::Out > TargetScale;
3678		IfcGeometricProjectionEnum::Out TargetView;
3679		Maybe< IfcLabel::Out > UserDefinedTargetView;
3680		};
3681
3682		// C++ wrapper for IfcLShapeProfileDef
3683		struct IfcLShapeProfileDef : IfcParameterizedProfileDef, ObjectHelper<IfcLShapeProfileDef,8> { IfcLShapeProfileDef() : Object("IfcLShapeProfileDef") {}
3684		IfcPositiveLengthMeasure::Out Depth;
3685		Maybe< IfcPositiveLengthMeasure::Out > Width;
3686		IfcPositiveLengthMeasure::Out Thickness;
3687		Maybe< IfcPositiveLengthMeasure::Out > FilletRadius;
3688		Maybe< IfcPositiveLengthMeasure::Out > EdgeRadius;
3689		Maybe< IfcPlaneAngleMeasure::Out > LegSlope;
3690		Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInX;
3691		Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY;
3692		};
3693
3694		// C++ wrapper for IfcGeometricCurveSet
3695		struct IfcGeometricCurveSet : IfcGeometricSet, ObjectHelper<IfcGeometricCurveSet,0> { IfcGeometricCurveSet() : Object("IfcGeometricCurveSet") {}
3696
3697		};
3698
3699		// C++ wrapper for IfcActor
3700		struct IfcActor : IfcObject, ObjectHelper<IfcActor,1> { IfcActor() : Object("IfcActor") {}
3701		IfcActorSelect::Out TheActor;
3702		};
3703
3704		// C++ wrapper for IfcOccupant
3705		struct IfcOccupant : IfcActor, ObjectHelper<IfcOccupant,1> { IfcOccupant() : Object("IfcOccupant") {}
3706		IfcOccupantTypeEnum::Out PredefinedType;
3707		};
3708
3709		// C++ wrapper for IfcBooleanClippingResult
3710		struct IfcBooleanClippingResult : IfcBooleanResult, ObjectHelper<IfcBooleanClippingResult,0> { IfcBooleanClippingResult() : Object("IfcBooleanClippingResult") {}
3711
3712		};
3713
3714		// C++ wrapper for IfcAnnotationFillArea
3715		struct IfcAnnotationFillArea : IfcGeometricRepresentationItem, ObjectHelper<IfcAnnotationFillArea,2> { IfcAnnotationFillArea() : Object("IfcAnnotationFillArea") {}
3716		Lazy< IfcCurve > OuterBoundary;
3717		Maybe< ListOf< Lazy< IfcCurve >, 1, 0 > > InnerBoundaries;
3718		};
3719
3720		// C++ wrapper for IfcLightSourceSpot
3721		struct IfcLightSourceSpot : IfcLightSourcePositional, ObjectHelper<IfcLightSourceSpot,4> { IfcLightSourceSpot() : Object("IfcLightSourceSpot") {}
3722		Lazy< IfcDirection > Orientation;
3723		Maybe< IfcReal::Out > ConcentrationExponent;
3724		IfcPositivePlaneAngleMeasure::Out SpreadAngle;
3725		IfcPositivePlaneAngleMeasure::Out BeamWidthAngle;
3726		};
3727
3728		// C++ wrapper for IfcFireSuppressionTerminalType
3729		struct IfcFireSuppressionTerminalType : IfcFlowTerminalType, ObjectHelper<IfcFireSuppressionTerminalType,1> { IfcFireSuppressionTerminalType() : Object("IfcFireSuppressionTerminalType") {}
3730		IfcFireSuppressionTerminalTypeEnum::Out PredefinedType;
3731		};
3732
3733		// C++ wrapper for IfcElectricGeneratorType
3734		struct IfcElectricGeneratorType : IfcEnergyConversionDeviceType, ObjectHelper<IfcElectricGeneratorType,1> { IfcElectricGeneratorType() : Object("IfcElectricGeneratorType") {}
3735		IfcElectricGeneratorTypeEnum::Out PredefinedType;
	3494	// C++ wrapper for IfcFlowSegment
	3495	struct IfcFlowSegment : IfcDistributionFlowElement, ObjectHelper<IfcFlowSegment,0> { IfcFlowSegment() : Object("IfcFlowSegment") {}
	3496
	3497	};
	3498
	3499	// C++ wrapper for IfcElementQuantity
	3500	struct IfcElementQuantity : IfcPropertySetDefinition, ObjectHelper<IfcElementQuantity,2> { IfcElementQuantity() : Object("IfcElementQuantity") {}
	3501	Maybe< IfcLabel::Out > MethodOfMeasurement;
	3502	ListOf< Lazy< NotImplemented >, 1, 0 > Quantities;
	3503	};
	3504
	3505	// C++ wrapper for IfcCurtainWall
	3506	struct IfcCurtainWall : IfcBuildingElement, ObjectHelper<IfcCurtainWall,0> { IfcCurtainWall() : Object("IfcCurtainWall") {}
	3507
	3508	};
	3509
	3510	// C++ wrapper for IfcDiscreteAccessory
	3511	struct IfcDiscreteAccessory : IfcElementComponent, ObjectHelper<IfcDiscreteAccessory,0> { IfcDiscreteAccessory() : Object("IfcDiscreteAccessory") {}
	3512
	3513	};
	3514
	3515	// C++ wrapper for IfcGrid
	3516	struct IfcGrid : IfcProduct, ObjectHelper<IfcGrid,3> { IfcGrid() : Object("IfcGrid") {}
	3517	ListOf< Lazy< NotImplemented >, 1, 0 > UAxes;
	3518	ListOf< Lazy< NotImplemented >, 1, 0 > VAxes;
	3519	Maybe< ListOf< Lazy< NotImplemented >, 1, 0 > > WAxes;
	3520	};
	3521
	3522	// C++ wrapper for IfcSanitaryTerminalType
	3523	struct IfcSanitaryTerminalType : IfcFlowTerminalType, ObjectHelper<IfcSanitaryTerminalType,1> { IfcSanitaryTerminalType() : Object("IfcSanitaryTerminalType") {}
	3524	IfcSanitaryTerminalTypeEnum::Out PredefinedType;
	3525	};
	3526
	3527	// C++ wrapper for IfcSubedge
	3528	struct IfcSubedge : IfcEdge, ObjectHelper<IfcSubedge,1> { IfcSubedge() : Object("IfcSubedge") {}
	3529	Lazy< IfcEdge > ParentEdge;
	3530	};
	3531
	3532	// C++ wrapper for IfcFilterType
	3533	struct IfcFilterType : IfcFlowTreatmentDeviceType, ObjectHelper<IfcFilterType,1> { IfcFilterType() : Object("IfcFilterType") {}
	3534	IfcFilterTypeEnum::Out PredefinedType;
	3535	};
	3536
	3537	// C++ wrapper for IfcTendon
	3538	struct IfcTendon : IfcReinforcingElement, ObjectHelper<IfcTendon,8> { IfcTendon() : Object("IfcTendon") {}
	3539	IfcTendonTypeEnum::Out PredefinedType;
	3540	IfcPositiveLengthMeasure::Out NominalDiameter;
	3541	IfcAreaMeasure::Out CrossSectionArea;
	3542	Maybe< IfcForceMeasure::Out > TensionForce;
	3543	Maybe< IfcPressureMeasure::Out > PreStress;
	3544	Maybe< IfcNormalisedRatioMeasure::Out > FrictionCoefficient;
	3545	Maybe< IfcPositiveLengthMeasure::Out > AnchorageSlip;
	3546	Maybe< IfcPositiveLengthMeasure::Out > MinCurvatureRadius;
	3547	};
	3548
	3549	// C++ wrapper for IfcStructuralLoadGroup
	3550	struct IfcStructuralLoadGroup : IfcGroup, ObjectHelper<IfcStructuralLoadGroup,5> { IfcStructuralLoadGroup() : Object("IfcStructuralLoadGroup") {}
	3551	IfcLoadGroupTypeEnum::Out PredefinedType;
	3552	IfcActionTypeEnum::Out ActionType;
	3553	IfcActionSourceTypeEnum::Out ActionSource;
	3554	Maybe< IfcPositiveRatioMeasure::Out > Coefficient;
	3555	Maybe< IfcLabel::Out > Purpose;
	3556	};
	3557
	3558	// C++ wrapper for IfcPresentationStyleAssignment
	3559	struct IfcPresentationStyleAssignment : ObjectHelper<IfcPresentationStyleAssignment,1> { IfcPresentationStyleAssignment() : Object("IfcPresentationStyleAssignment") {}
	3560	ListOf< IfcPresentationStyleSelect, 1, 0 >::Out Styles;
	3561	};
	3562
	3563	// C++ wrapper for IfcStructuralCurveMember
	3564	struct IfcStructuralCurveMember : IfcStructuralMember, ObjectHelper<IfcStructuralCurveMember,1> { IfcStructuralCurveMember() : Object("IfcStructuralCurveMember") {}
	3565	IfcStructuralCurveTypeEnum::Out PredefinedType;
	3566	};
	3567
	3568	// C++ wrapper for IfcLightSourceAmbient
	3569	struct IfcLightSourceAmbient : IfcLightSource, ObjectHelper<IfcLightSourceAmbient,0> { IfcLightSourceAmbient() : Object("IfcLightSourceAmbient") {}
	3570
	3571	};
	3572
	3573	// C++ wrapper for IfcCondition
	3574	struct IfcCondition : IfcGroup, ObjectHelper<IfcCondition,0> { IfcCondition() : Object("IfcCondition") {}
	3575
	3576	};
	3577
	3578	// C++ wrapper for IfcPort
	3579	struct IfcPort : IfcProduct, ObjectHelper<IfcPort,0> { IfcPort() : Object("IfcPort") {}
	3580
	3581	};
	3582
	3583	// C++ wrapper for IfcSpace
	3584	struct IfcSpace : IfcSpatialStructureElement, ObjectHelper<IfcSpace,2> { IfcSpace() : Object("IfcSpace") {}
	3585	IfcInternalOrExternalEnum::Out InteriorOrExteriorSpace;
	3586	Maybe< IfcLengthMeasure::Out > ElevationWithFlooring;
	3587	};
	3588
	3589	// C++ wrapper for IfcHeatExchangerType
	3590	struct IfcHeatExchangerType : IfcEnergyConversionDeviceType, ObjectHelper<IfcHeatExchangerType,1> { IfcHeatExchangerType() : Object("IfcHeatExchangerType") {}
	3591	IfcHeatExchangerTypeEnum::Out PredefinedType;
	3592	};
	3593
	3594	// C++ wrapper for IfcTankType
	3595	struct IfcTankType : IfcFlowStorageDeviceType, ObjectHelper<IfcTankType,1> { IfcTankType() : Object("IfcTankType") {}
	3596	IfcTankTypeEnum::Out PredefinedType;
3736	3597	};
3737	3598
3738	3599	// C++ wrapper for IfcInventory

3745	3606	Maybe< Lazy< NotImplemented > > OriginalValue;
3746	3607	};
3747	3608
3748		// C++ wrapper for IfcPolyline
3749		struct IfcPolyline : IfcBoundedCurve, ObjectHelper<IfcPolyline,1> { IfcPolyline() : Object("IfcPolyline") {}
3750		ListOf< Lazy< IfcCartesianPoint >, 2, 0 > Points;
3751		};
3752
3753		// C++ wrapper for IfcBoxedHalfSpace
3754		struct IfcBoxedHalfSpace : IfcHalfSpaceSolid, ObjectHelper<IfcBoxedHalfSpace,1> { IfcBoxedHalfSpace() : Object("IfcBoxedHalfSpace") {}
3755		Lazy< IfcBoundingBox > Enclosure;
3756		};
3757
3758		// C++ wrapper for IfcAirTerminalType
3759		struct IfcAirTerminalType : IfcFlowTerminalType, ObjectHelper<IfcAirTerminalType,1> { IfcAirTerminalType() : Object("IfcAirTerminalType") {}
3760		IfcAirTerminalTypeEnum::Out PredefinedType;
3761		};
3762
3763		// C++ wrapper for IfcDistributionPort
3764		struct IfcDistributionPort : IfcPort, ObjectHelper<IfcDistributionPort,1> { IfcDistributionPort() : Object("IfcDistributionPort") {}
3765		Maybe< IfcFlowDirectionEnum::Out > FlowDirection;
3766		};
3767
3768		// C++ wrapper for IfcCostItem
3769		struct IfcCostItem : IfcControl, ObjectHelper<IfcCostItem,0> { IfcCostItem() : Object("IfcCostItem") {}
3770
3771		};
3772
3773		// C++ wrapper for IfcStructuredDimensionCallout
3774		struct IfcStructuredDimensionCallout : IfcDraughtingCallout, ObjectHelper<IfcStructuredDimensionCallout,0> { IfcStructuredDimensionCallout() : Object("IfcStructuredDimensionCallout") {}
3775
	3609	// C++ wrapper for IfcTransportElementType
	3610	struct IfcTransportElementType : IfcElementType, ObjectHelper<IfcTransportElementType,1> { IfcTransportElementType() : Object("IfcTransportElementType") {}
	3611	IfcTransportElementTypeEnum::Out PredefinedType;
	3612	};
	3613
	3614	// C++ wrapper for IfcAirToAirHeatRecoveryType
	3615	struct IfcAirToAirHeatRecoveryType : IfcEnergyConversionDeviceType, ObjectHelper<IfcAirToAirHeatRecoveryType,1> { IfcAirToAirHeatRecoveryType() : Object("IfcAirToAirHeatRecoveryType") {}
	3616	IfcAirToAirHeatRecoveryTypeEnum::Out PredefinedType;
	3617	};
	3618
	3619	// C++ wrapper for IfcStairFlight
	3620	struct IfcStairFlight : IfcBuildingElement, ObjectHelper<IfcStairFlight,4> { IfcStairFlight() : Object("IfcStairFlight") {}
	3621	Maybe< INTEGER::Out > NumberOfRiser;
	3622	Maybe< INTEGER::Out > NumberOfTreads;
	3623	Maybe< IfcPositiveLengthMeasure::Out > RiserHeight;
	3624	Maybe< IfcPositiveLengthMeasure::Out > TreadLength;
	3625	};
	3626
	3627	// C++ wrapper for IfcElectricalElement
	3628	struct IfcElectricalElement : IfcElement, ObjectHelper<IfcElectricalElement,0> { IfcElectricalElement() : Object("IfcElectricalElement") {}
	3629
	3630	};
	3631
	3632	// C++ wrapper for IfcSurfaceStyleWithTextures
	3633	struct IfcSurfaceStyleWithTextures : ObjectHelper<IfcSurfaceStyleWithTextures,1> { IfcSurfaceStyleWithTextures() : Object("IfcSurfaceStyleWithTextures") {}
	3634	ListOf< Lazy< NotImplemented >, 1, 0 > Textures;
	3635	};
	3636
	3637	// C++ wrapper for IfcBoundingBox
	3638	struct IfcBoundingBox : IfcGeometricRepresentationItem, ObjectHelper<IfcBoundingBox,4> { IfcBoundingBox() : Object("IfcBoundingBox") {}
	3639	Lazy< IfcCartesianPoint > Corner;
	3640	IfcPositiveLengthMeasure::Out XDim;
	3641	IfcPositiveLengthMeasure::Out YDim;
	3642	IfcPositiveLengthMeasure::Out ZDim;
	3643	};
	3644
	3645	// C++ wrapper for IfcWallType
	3646	struct IfcWallType : IfcBuildingElementType, ObjectHelper<IfcWallType,1> { IfcWallType() : Object("IfcWallType") {}
	3647	IfcWallTypeEnum::Out PredefinedType;
	3648	};
	3649
	3650	// C++ wrapper for IfcMove
	3651	struct IfcMove : IfcTask, ObjectHelper<IfcMove,3> { IfcMove() : Object("IfcMove") {}
	3652	Lazy< IfcSpatialStructureElement > MoveFrom;
	3653	Lazy< IfcSpatialStructureElement > MoveTo;
	3654	Maybe< ListOf< IfcText, 1, 0 >::Out > PunchList;
	3655	};
	3656
	3657	// C++ wrapper for IfcCircle
	3658	struct IfcCircle : IfcConic, ObjectHelper<IfcCircle,1> { IfcCircle() : Object("IfcCircle") {}
	3659	IfcPositiveLengthMeasure::Out Radius;
	3660	};
	3661
	3662	// C++ wrapper for IfcOffsetCurve2D
	3663	struct IfcOffsetCurve2D : IfcCurve, ObjectHelper<IfcOffsetCurve2D,3> { IfcOffsetCurve2D() : Object("IfcOffsetCurve2D") {}
	3664	Lazy< IfcCurve > BasisCurve;
	3665	IfcLengthMeasure::Out Distance;
	3666	LOGICAL::Out SelfIntersect;
	3667	};
	3668
	3669	// C++ wrapper for IfcPointOnCurve
	3670	struct IfcPointOnCurve : IfcPoint, ObjectHelper<IfcPointOnCurve,2> { IfcPointOnCurve() : Object("IfcPointOnCurve") {}
	3671	Lazy< IfcCurve > BasisCurve;
	3672	IfcParameterValue::Out PointParameter;
3776	3673	};
3777	3674
3778	3675	// C++ wrapper for IfcStructuralResultGroup

3782	3679	BOOLEAN::Out IsLinear;
3783	3680	};
3784	3681
3785		// C++ wrapper for IfcOrientedEdge
3786		struct IfcOrientedEdge : IfcEdge, ObjectHelper<IfcOrientedEdge,2> { IfcOrientedEdge() : Object("IfcOrientedEdge") {}
3787		Lazy< IfcEdge > EdgeElement;
3788		BOOLEAN::Out Orientation;
	3682	// C++ wrapper for IfcSectionedSpine
	3683	struct IfcSectionedSpine : IfcGeometricRepresentationItem, ObjectHelper<IfcSectionedSpine,3> { IfcSectionedSpine() : Object("IfcSectionedSpine") {}
	3684	Lazy< IfcCompositeCurve > SpineCurve;
	3685	ListOf< Lazy< IfcProfileDef >, 2, 0 > CrossSections;
	3686	ListOf< Lazy< IfcAxis2Placement3D >, 2, 0 > CrossSectionPositions;
	3687	};
	3688
	3689	// C++ wrapper for IfcSlab
	3690	struct IfcSlab : IfcBuildingElement, ObjectHelper<IfcSlab,1> { IfcSlab() : Object("IfcSlab") {}
	3691	Maybe< IfcSlabTypeEnum::Out > PredefinedType;
	3692	};
	3693
	3694	// C++ wrapper for IfcVertex
	3695	struct IfcVertex : IfcTopologicalRepresentationItem, ObjectHelper<IfcVertex,0> { IfcVertex() : Object("IfcVertex") {}
	3696
	3697	};
	3698
	3699	// C++ wrapper for IfcVertexPoint
	3700	struct IfcVertexPoint : IfcVertex, ObjectHelper<IfcVertexPoint,1> { IfcVertexPoint() : Object("IfcVertexPoint") {}
	3701	Lazy< IfcPoint > VertexGeometry;
	3702	};
	3703
	3704	// C++ wrapper for IfcStructuralLinearAction
	3705	struct IfcStructuralLinearAction : IfcStructuralAction, ObjectHelper<IfcStructuralLinearAction,1> { IfcStructuralLinearAction() : Object("IfcStructuralLinearAction") {}
	3706	IfcProjectedOrTrueLengthEnum::Out ProjectedOrTrue;
	3707	};
	3708
	3709	// C++ wrapper for IfcStructuralLinearActionVarying
	3710	struct IfcStructuralLinearActionVarying : IfcStructuralLinearAction, ObjectHelper<IfcStructuralLinearActionVarying,2> { IfcStructuralLinearActionVarying() : Object("IfcStructuralLinearActionVarying") {}
	3711	Lazy< NotImplemented > VaryingAppliedLoadLocation;
	3712	ListOf< Lazy< NotImplemented >, 1, 0 > SubsequentAppliedLoads;
	3713	};
	3714
	3715	// C++ wrapper for IfcBuildingElementProxyType
	3716	struct IfcBuildingElementProxyType : IfcBuildingElementType, ObjectHelper<IfcBuildingElementProxyType,1> { IfcBuildingElementProxyType() : Object("IfcBuildingElementProxyType") {}
	3717	IfcBuildingElementProxyTypeEnum::Out PredefinedType;
	3718	};
	3719
	3720	// C++ wrapper for IfcProjectionElement
	3721	struct IfcProjectionElement : IfcFeatureElementAddition, ObjectHelper<IfcProjectionElement,0> { IfcProjectionElement() : Object("IfcProjectionElement") {}
	3722
	3723	};
	3724
	3725	// C++ wrapper for IfcConversionBasedUnit
	3726	struct IfcConversionBasedUnit : IfcNamedUnit, ObjectHelper<IfcConversionBasedUnit,2> { IfcConversionBasedUnit() : Object("IfcConversionBasedUnit") {}
	3727	IfcLabel::Out Name;
	3728	Lazy< IfcMeasureWithUnit > ConversionFactor;
	3729	};
	3730
	3731	// C++ wrapper for IfcGeometricRepresentationSubContext
	3732	struct IfcGeometricRepresentationSubContext : IfcGeometricRepresentationContext, ObjectHelper<IfcGeometricRepresentationSubContext,4> { IfcGeometricRepresentationSubContext() : Object("IfcGeometricRepresentationSubContext") {}
	3733	Lazy< IfcGeometricRepresentationContext > ParentContext;
	3734	Maybe< IfcPositiveRatioMeasure::Out > TargetScale;
	3735	IfcGeometricProjectionEnum::Out TargetView;
	3736	Maybe< IfcLabel::Out > UserDefinedTargetView;
	3737	};
	3738
	3739	// C++ wrapper for IfcAnnotationSurfaceOccurrence
	3740	struct IfcAnnotationSurfaceOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationSurfaceOccurrence,0> { IfcAnnotationSurfaceOccurrence() : Object("IfcAnnotationSurfaceOccurrence") {}
	3741
	3742	};
	3743
	3744	// C++ wrapper for IfcRoundedEdgeFeature
	3745	struct IfcRoundedEdgeFeature : IfcEdgeFeature, ObjectHelper<IfcRoundedEdgeFeature,1> { IfcRoundedEdgeFeature() : Object("IfcRoundedEdgeFeature") {}
	3746	Maybe< IfcPositiveLengthMeasure::Out > Radius;
	3747	};
	3748
	3749	// C++ wrapper for IfcElectricDistributionPoint
	3750	struct IfcElectricDistributionPoint : IfcFlowController, ObjectHelper<IfcElectricDistributionPoint,2> { IfcElectricDistributionPoint() : Object("IfcElectricDistributionPoint") {}
	3751	IfcElectricDistributionPointFunctionEnum::Out DistributionPointFunction;
	3752	Maybe< IfcLabel::Out > UserDefinedFunction;
	3753	};
	3754
	3755	// C++ wrapper for IfcCableCarrierSegmentType
	3756	struct IfcCableCarrierSegmentType : IfcFlowSegmentType, ObjectHelper<IfcCableCarrierSegmentType,1> { IfcCableCarrierSegmentType() : Object("IfcCableCarrierSegmentType") {}
	3757	IfcCableCarrierSegmentTypeEnum::Out PredefinedType;
	3758	};
	3759
	3760	// C++ wrapper for IfcWallStandardCase
	3761	struct IfcWallStandardCase : IfcWall, ObjectHelper<IfcWallStandardCase,0> { IfcWallStandardCase() : Object("IfcWallStandardCase") {}
	3762
3789	3763	};
3790	3764
3791	3765	// C++ wrapper for IfcCsgSolid

3793	3767	IfcCsgSelect::Out TreeRootExpression;
3794	3768	};
3795	3769
3796		// C++ wrapper for IfcPlanarBox
3797		struct IfcPlanarBox : IfcPlanarExtent, ObjectHelper<IfcPlanarBox,1> { IfcPlanarBox() : Object("IfcPlanarBox") {}
3798		IfcAxis2Placement::Out Placement;
3799		};
3800
3801		// C++ wrapper for IfcMaterialDefinitionRepresentation
3802		struct IfcMaterialDefinitionRepresentation : IfcProductRepresentation, ObjectHelper<IfcMaterialDefinitionRepresentation,1> { IfcMaterialDefinitionRepresentation() : Object("IfcMaterialDefinitionRepresentation") {}
3803		Lazy< NotImplemented > RepresentedMaterial;
3804		};
3805
3806		// C++ wrapper for IfcAsymmetricIShapeProfileDef
3807		struct IfcAsymmetricIShapeProfileDef : IfcIShapeProfileDef, ObjectHelper<IfcAsymmetricIShapeProfileDef,4> { IfcAsymmetricIShapeProfileDef() : Object("IfcAsymmetricIShapeProfileDef") {}
3808		IfcPositiveLengthMeasure::Out TopFlangeWidth;
3809		Maybe< IfcPositiveLengthMeasure::Out > TopFlangeThickness;
3810		Maybe< IfcPositiveLengthMeasure::Out > TopFlangeFilletRadius;
3811		Maybe< IfcPositiveLengthMeasure::Out > CentreOfGravityInY;
3812		};
3813
3814		// C++ wrapper for IfcRepresentationMap
3815		struct IfcRepresentationMap : ObjectHelper<IfcRepresentationMap,2> { IfcRepresentationMap() : Object("IfcRepresentationMap") {}
3816		IfcAxis2Placement::Out MappingOrigin;
3817		Lazy< IfcRepresentation > MappedRepresentation;
	3770	// C++ wrapper for IfcBeamType
	3771	struct IfcBeamType : IfcBuildingElementType, ObjectHelper<IfcBeamType,1> { IfcBeamType() : Object("IfcBeamType") {}
	3772	IfcBeamTypeEnum::Out PredefinedType;
	3773	};
	3774
	3775	// C++ wrapper for IfcAnnotationFillArea
	3776	struct IfcAnnotationFillArea : IfcGeometricRepresentationItem, ObjectHelper<IfcAnnotationFillArea,2> { IfcAnnotationFillArea() : Object("IfcAnnotationFillArea") {}
	3777	Lazy< IfcCurve > OuterBoundary;
	3778	Maybe< ListOf< Lazy< IfcCurve >, 1, 0 > > InnerBoundaries;
	3779	};
	3780
	3781	// C++ wrapper for IfcStructuralCurveMemberVarying
	3782	struct IfcStructuralCurveMemberVarying : IfcStructuralCurveMember, ObjectHelper<IfcStructuralCurveMemberVarying,0> { IfcStructuralCurveMemberVarying() : Object("IfcStructuralCurveMemberVarying") {}
	3783
	3784	};
	3785
	3786	// C++ wrapper for IfcPointOnSurface
	3787	struct IfcPointOnSurface : IfcPoint, ObjectHelper<IfcPointOnSurface,3> { IfcPointOnSurface() : Object("IfcPointOnSurface") {}
	3788	Lazy< IfcSurface > BasisSurface;
	3789	IfcParameterValue::Out PointParameterU;
	3790	IfcParameterValue::Out PointParameterV;
	3791	};
	3792
	3793	// C++ wrapper for IfcOrderAction
	3794	struct IfcOrderAction : IfcTask, ObjectHelper<IfcOrderAction,1> { IfcOrderAction() : Object("IfcOrderAction") {}
	3795	IfcIdentifier::Out ActionID;
	3796	};
	3797
	3798	// C++ wrapper for IfcEdgeLoop
	3799	struct IfcEdgeLoop : IfcLoop, ObjectHelper<IfcEdgeLoop,1> { IfcEdgeLoop() : Object("IfcEdgeLoop") {}
	3800	ListOf< Lazy< IfcOrientedEdge >, 1, 0 > EdgeList;
	3801	};
	3802
	3803	// C++ wrapper for IfcAnnotationFillAreaOccurrence
	3804	struct IfcAnnotationFillAreaOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationFillAreaOccurrence,2> { IfcAnnotationFillAreaOccurrence() : Object("IfcAnnotationFillAreaOccurrence") {}
	3805	Maybe< Lazy< IfcPoint > > FillStyleTarget;
	3806	Maybe< IfcGlobalOrLocalEnum::Out > GlobalOrLocal;
	3807	};
	3808
	3809	// C++ wrapper for IfcWorkPlan
	3810	struct IfcWorkPlan : IfcWorkControl, ObjectHelper<IfcWorkPlan,0> { IfcWorkPlan() : Object("IfcWorkPlan") {}
	3811
	3812	};
	3813
	3814	// C++ wrapper for IfcEllipse
	3815	struct IfcEllipse : IfcConic, ObjectHelper<IfcEllipse,2> { IfcEllipse() : Object("IfcEllipse") {}
	3816	IfcPositiveLengthMeasure::Out SemiAxis1;
	3817	IfcPositiveLengthMeasure::Out SemiAxis2;
	3818	};
	3819
	3820	// C++ wrapper for IfcProductDefinitionShape
	3821	struct IfcProductDefinitionShape : IfcProductRepresentation, ObjectHelper<IfcProductDefinitionShape,0> { IfcProductDefinitionShape() : Object("IfcProductDefinitionShape") {}
	3822
	3823	};
	3824
	3825	// C++ wrapper for IfcProjectionCurve
	3826	struct IfcProjectionCurve : IfcAnnotationCurveOccurrence, ObjectHelper<IfcProjectionCurve,0> { IfcProjectionCurve() : Object("IfcProjectionCurve") {}
	3827
	3828	};
	3829
	3830	// C++ wrapper for IfcElectricalCircuit
	3831	struct IfcElectricalCircuit : IfcSystem, ObjectHelper<IfcElectricalCircuit,0> { IfcElectricalCircuit() : Object("IfcElectricalCircuit") {}
	3832
	3833	};
	3834
	3835	// C++ wrapper for IfcRationalBezierCurve
	3836	struct IfcRationalBezierCurve : IfcBezierCurve, ObjectHelper<IfcRationalBezierCurve,1> { IfcRationalBezierCurve() : Object("IfcRationalBezierCurve") {}
	3837	ListOf< REAL, 2, 0 >::Out WeightsData;
	3838	};
	3839
	3840	// C++ wrapper for IfcStructuralPointAction
	3841	struct IfcStructuralPointAction : IfcStructuralAction, ObjectHelper<IfcStructuralPointAction,0> { IfcStructuralPointAction() : Object("IfcStructuralPointAction") {}
	3842
	3843	};
	3844
	3845	// C++ wrapper for IfcPipeSegmentType
	3846	struct IfcPipeSegmentType : IfcFlowSegmentType, ObjectHelper<IfcPipeSegmentType,1> { IfcPipeSegmentType() : Object("IfcPipeSegmentType") {}
	3847	IfcPipeSegmentTypeEnum::Out PredefinedType;
	3848	};
	3849
	3850	// C++ wrapper for IfcTwoDirectionRepeatFactor
	3851	struct IfcTwoDirectionRepeatFactor : IfcOneDirectionRepeatFactor, ObjectHelper<IfcTwoDirectionRepeatFactor,1> { IfcTwoDirectionRepeatFactor() : Object("IfcTwoDirectionRepeatFactor") {}
	3852	Lazy< IfcVector > SecondRepeatFactor;
	3853	};
	3854
	3855	// C++ wrapper for IfcShapeRepresentation
	3856	struct IfcShapeRepresentation : IfcShapeModel, ObjectHelper<IfcShapeRepresentation,0> { IfcShapeRepresentation() : Object("IfcShapeRepresentation") {}
	3857
	3858	};
	3859
	3860	// C++ wrapper for IfcPropertySet
	3861	struct IfcPropertySet : IfcPropertySetDefinition, ObjectHelper<IfcPropertySet,1> { IfcPropertySet() : Object("IfcPropertySet") {}
	3862	ListOf< Lazy< IfcProperty >, 1, 0 > HasProperties;
	3863	};
	3864
	3865	// C++ wrapper for IfcSurfaceStyleRendering
	3866	struct IfcSurfaceStyleRendering : IfcSurfaceStyleShading, ObjectHelper<IfcSurfaceStyleRendering,8> { IfcSurfaceStyleRendering() : Object("IfcSurfaceStyleRendering") {}
	3867	Maybe< IfcNormalisedRatioMeasure::Out > Transparency;
	3868	Maybe< IfcColourOrFactor::Out > DiffuseColour;
	3869	Maybe< IfcColourOrFactor::Out > TransmissionColour;
	3870	Maybe< IfcColourOrFactor::Out > DiffuseTransmissionColour;
	3871	Maybe< IfcColourOrFactor::Out > ReflectionColour;
	3872	Maybe< IfcColourOrFactor::Out > SpecularColour;
	3873	Maybe< IfcSpecularHighlightSelect::Out > SpecularHighlight;
	3874	IfcReflectanceMethodEnum::Out ReflectanceMethod;
	3875	};
	3876
	3877	// C++ wrapper for IfcDistributionPort
	3878	struct IfcDistributionPort : IfcPort, ObjectHelper<IfcDistributionPort,1> { IfcDistributionPort() : Object("IfcDistributionPort") {}
	3879	Maybe< IfcFlowDirectionEnum::Out > FlowDirection;
	3880	};
	3881
	3882	// C++ wrapper for IfcPipeFittingType
	3883	struct IfcPipeFittingType : IfcFlowFittingType, ObjectHelper<IfcPipeFittingType,1> { IfcPipeFittingType() : Object("IfcPipeFittingType") {}
	3884	IfcPipeFittingTypeEnum::Out PredefinedType;
	3885	};
	3886
	3887	// C++ wrapper for IfcTransportElement
	3888	struct IfcTransportElement : IfcElement, ObjectHelper<IfcTransportElement,3> { IfcTransportElement() : Object("IfcTransportElement") {}
	3889	Maybe< IfcTransportElementTypeEnum::Out > OperationType;
	3890	Maybe< IfcMassMeasure::Out > CapacityByWeight;
	3891	Maybe< IfcCountMeasure::Out > CapacityByNumber;
	3892	};
	3893
	3894	// C++ wrapper for IfcAnnotationTextOccurrence
	3895	struct IfcAnnotationTextOccurrence : IfcAnnotationOccurrence, ObjectHelper<IfcAnnotationTextOccurrence,0> { IfcAnnotationTextOccurrence() : Object("IfcAnnotationTextOccurrence") {}
	3896
	3897	};
	3898
	3899	// C++ wrapper for IfcStructuralAnalysisModel
	3900	struct IfcStructuralAnalysisModel : IfcSystem, ObjectHelper<IfcStructuralAnalysisModel,4> { IfcStructuralAnalysisModel() : Object("IfcStructuralAnalysisModel") {}
	3901	IfcAnalysisModelTypeEnum::Out PredefinedType;
	3902	Maybe< Lazy< IfcAxis2Placement3D > > OrientationOf2DPlane;
	3903	Maybe< ListOf< Lazy< IfcStructuralLoadGroup >, 1, 0 > > LoadedBy;
	3904	Maybe< ListOf< Lazy< IfcStructuralResultGroup >, 1, 0 > > HasResults;
	3905	};
	3906
	3907	// C++ wrapper for IfcConditionCriterion
	3908	struct IfcConditionCriterion : IfcControl, ObjectHelper<IfcConditionCriterion,2> { IfcConditionCriterion() : Object("IfcConditionCriterion") {}
	3909	IfcConditionCriterionSelect::Out Criterion;
	3910	IfcDateTimeSelect::Out CriterionDateTime;
3818	3911	};
3819	3912
3820	3913	void GetSchema(EXPRESS::ConversionSchema& out);

3833	3926	DECL_CONV_STUB(IfcTypeObject);
3834	3927	DECL_CONV_STUB(IfcTypeProduct);
3835	3928	DECL_CONV_STUB(IfcElementType);
3836		DECL_CONV_STUB(IfcFurnishingElementType);
3837		DECL_CONV_STUB(IfcFurnitureType);
	3929	DECL_CONV_STUB(IfcDistributionElementType);
	3930	DECL_CONV_STUB(IfcDistributionFlowElementType);
	3931	DECL_CONV_STUB(IfcFlowControllerType);
	3932	DECL_CONV_STUB(IfcElectricTimeControlType);
	3933	DECL_CONV_STUB(IfcRepresentation);
	3934	DECL_CONV_STUB(IfcShapeModel);
	3935	DECL_CONV_STUB(IfcTopologyRepresentation);
	3936	DECL_CONV_STUB(IfcRelationship);
	3937	DECL_CONV_STUB(IfcRelConnects);
	3938	DECL_CONV_STUB(IfcFlowFittingType);
	3939	DECL_CONV_STUB(IfcCableCarrierFittingType);
	3940	DECL_CONV_STUB(IfcEnergyConversionDeviceType);
	3941	DECL_CONV_STUB(IfcCoilType);
3838	3942	DECL_CONV_STUB(IfcObject);
3839		DECL_CONV_STUB(IfcProduct);
3840		DECL_CONV_STUB(IfcGrid);
	3943	DECL_CONV_STUB(IfcControl);
	3944	DECL_CONV_STUB(IfcPerformanceHistory);
3841	3945	DECL_CONV_STUB(IfcRepresentationItem);
3842	3946	DECL_CONV_STUB(IfcGeometricRepresentationItem);
3843		DECL_CONV_STUB(IfcOneDirectionRepeatFactor);
3844		DECL_CONV_STUB(IfcTwoDirectionRepeatFactor);
	3947	DECL_CONV_STUB(IfcTextLiteral);
	3948	DECL_CONV_STUB(IfcTextLiteralWithExtent);
	3949	DECL_CONV_STUB(IfcProductRepresentation);
	3950	DECL_CONV_STUB(IfcProduct);
3845	3951	DECL_CONV_STUB(IfcElement);
3846		DECL_CONV_STUB(IfcElementComponent);
	3952	DECL_CONV_STUB(IfcDistributionElement);
	3953	DECL_CONV_STUB(IfcDistributionFlowElement);
	3954	DECL_CONV_STUB(IfcCurve);
	3955	DECL_CONV_STUB(IfcBoundedCurve);
	3956	DECL_CONV_STUB(IfcCompositeCurve);
	3957	DECL_CONV_STUB(Ifc2DCompositeCurve);
	3958	DECL_CONV_STUB(IfcCartesianTransformationOperator);
	3959	DECL_CONV_STUB(IfcCartesianTransformationOperator3D);
	3960	DECL_CONV_STUB(IfcProperty);
	3961	DECL_CONV_STUB(IfcSimpleProperty);
	3962	DECL_CONV_STUB(IfcPropertyEnumeratedValue);
	3963	DECL_CONV_STUB(IfcBuildingElementType);
	3964	DECL_CONV_STUB(IfcStairFlightType);
	3965	DECL_CONV_STUB(IfcSurface);
	3966	DECL_CONV_STUB(IfcElementarySurface);
	3967	DECL_CONV_STUB(IfcPlane);
	3968	DECL_CONV_STUB(IfcBooleanResult);
	3969	DECL_CONV_STUB(IfcBooleanClippingResult);
	3970	DECL_CONV_STUB(IfcSolidModel);
	3971	DECL_CONV_STUB(IfcManifoldSolidBrep);
	3972	DECL_CONV_STUB(IfcFlowTerminalType);
	3973	DECL_CONV_STUB(IfcStackTerminalType);
	3974	DECL_CONV_STUB(IfcStructuralItem);
	3975	DECL_CONV_STUB(IfcStructuralConnection);
	3976	DECL_CONV_STUB(IfcStructuralCurveConnection);
	3977	DECL_CONV_STUB(IfcJunctionBoxType);
	3978	DECL_CONV_STUB(IfcPropertyDefinition);
	3979	DECL_CONV_STUB(IfcPropertySetDefinition);
	3980	DECL_CONV_STUB(IfcProcess);
	3981	DECL_CONV_STUB(IfcTask);
	3982	DECL_CONV_STUB(IfcRelFillsElement);
	3983	DECL_CONV_STUB(IfcProcedure);
	3984	DECL_CONV_STUB(IfcProxy);
	3985	DECL_CONV_STUB(IfcResource);
	3986	DECL_CONV_STUB(IfcConstructionResource);
	3987	DECL_CONV_STUB(IfcSubContractResource);
	3988	DECL_CONV_STUB(IfcRelContainedInSpatialStructure);
	3989	DECL_CONV_STUB(IfcTopologicalRepresentationItem);
	3990	DECL_CONV_STUB(IfcEdge);
	3991	DECL_CONV_STUB(IfcEdgeCurve);
	3992	DECL_CONV_STUB(IfcPlateType);
	3993	DECL_CONV_STUB(IfcObjectPlacement);
	3994	DECL_CONV_STUB(IfcGridPlacement);
	3995	DECL_CONV_STUB(IfcFireSuppressionTerminalType);
	3996	DECL_CONV_STUB(IfcFlowStorageDevice);
	3997	DECL_CONV_STUB(IfcSweptSurface);
	3998	DECL_CONV_STUB(IfcSurfaceOfRevolution);
	3999	DECL_CONV_STUB(IfcOrientedEdge);
	4000	DECL_CONV_STUB(IfcDirection);
	4001	DECL_CONV_STUB(IfcProfileDef);
	4002	DECL_CONV_STUB(IfcParameterizedProfileDef);
	4003	DECL_CONV_STUB(IfcCShapeProfileDef);
	4004	DECL_CONV_STUB(IfcFeatureElement);
	4005	DECL_CONV_STUB(IfcFeatureElementSubtraction);
	4006	DECL_CONV_STUB(IfcEdgeFeature);
	4007	DECL_CONV_STUB(IfcChamferEdgeFeature);
	4008	DECL_CONV_STUB(IfcBuildingElement);
	4009	DECL_CONV_STUB(IfcColumn);
	4010	DECL_CONV_STUB(IfcPropertyReferenceValue);
	4011	DECL_CONV_STUB(IfcElectricMotorType);
3847	4012	DECL_CONV_STUB(IfcSpatialStructureElementType);
3848		DECL_CONV_STUB(IfcControl);
3849		DECL_CONV_STUB(IfcActionRequest);
3850		DECL_CONV_STUB(IfcDistributionElementType);
3851		DECL_CONV_STUB(IfcDistributionFlowElementType);
3852		DECL_CONV_STUB(IfcEnergyConversionDeviceType);
3853		DECL_CONV_STUB(IfcCooledBeamType);
	4013	DECL_CONV_STUB(IfcSpaceType);
	4014	DECL_CONV_STUB(IfcColumnType);
	4015	DECL_CONV_STUB(IfcCraneRailAShapeProfileDef);
	4016	DECL_CONV_STUB(IfcCondenserType);
	4017	DECL_CONV_STUB(IfcCircleProfileDef);
	4018	DECL_CONV_STUB(IfcCircleHollowProfileDef);
	4019	DECL_CONV_STUB(IfcPlacement);
	4020	DECL_CONV_STUB(IfcAxis2Placement3D);
	4021	DECL_CONV_STUB(IfcPresentationStyle);
	4022	DECL_CONV_STUB(IfcEquipmentElement);
	4023	DECL_CONV_STUB(IfcCompositeCurveSegment);
	4024	DECL_CONV_STUB(IfcRectangleProfileDef);
	4025	DECL_CONV_STUB(IfcBuildingElementProxy);
	4026	DECL_CONV_STUB(IfcDistributionControlElementType);
	4027	DECL_CONV_STUB(IfcFlowInstrumentType);
	4028	DECL_CONV_STUB(IfcDraughtingCallout);
	4029	DECL_CONV_STUB(IfcDimensionCurveDirectedCallout);
	4030	DECL_CONV_STUB(IfcLinearDimension);
	4031	DECL_CONV_STUB(IfcElementAssembly);
3854	4032	DECL_CONV_STUB(IfcCsgPrimitive3D);
3855		DECL_CONV_STUB(IfcRectangularPyramid);
3856		DECL_CONV_STUB(IfcSurface);
3857		DECL_CONV_STUB(IfcBoundedSurface);
3858		DECL_CONV_STUB(IfcRectangularTrimmedSurface);
3859		DECL_CONV_STUB(IfcGroup);
3860		DECL_CONV_STUB(IfcRelationship);
	4033	DECL_CONV_STUB(IfcRightCircularCone);
	4034	DECL_CONV_STUB(IfcProjectOrder);
	4035	DECL_CONV_STUB(IfcLShapeProfileDef);
	4036	DECL_CONV_STUB(IfcAngularDimension);
	4037	DECL_CONV_STUB(IfcLocalPlacement);
	4038	DECL_CONV_STUB(IfcSweptAreaSolid);
	4039	DECL_CONV_STUB(IfcRevolvedAreaSolid);
	4040	DECL_CONV_STUB(IfcStructuralSurfaceConnection);
	4041	DECL_CONV_STUB(IfcRadiusDimension);
	4042	DECL_CONV_STUB(IfcSweptDiskSolid);
3861	4043	DECL_CONV_STUB(IfcHalfSpaceSolid);
3862	4044	DECL_CONV_STUB(IfcPolygonalBoundedHalfSpace);
3863		DECL_CONV_STUB(IfcAirToAirHeatRecoveryType);
3864		DECL_CONV_STUB(IfcFlowFittingType);
3865		DECL_CONV_STUB(IfcPipeFittingType);
3866		DECL_CONV_STUB(IfcRepresentation);
	4045	DECL_CONV_STUB(IfcTimeSeriesSchedule);
	4046	DECL_CONV_STUB(IfcCooledBeamType);
	4047	DECL_CONV_STUB(IfcProject);
	4048	DECL_CONV_STUB(IfcEvaporatorType);
	4049	DECL_CONV_STUB(IfcLaborResource);
	4050	DECL_CONV_STUB(IfcPropertyBoundedValue);
	4051	DECL_CONV_STUB(IfcRampFlightType);
	4052	DECL_CONV_STUB(IfcMember);
	4053	DECL_CONV_STUB(IfcTubeBundleType);
	4054	DECL_CONV_STUB(IfcValveType);
	4055	DECL_CONV_STUB(IfcTrimmedCurve);
	4056	DECL_CONV_STUB(IfcRelDefines);
	4057	DECL_CONV_STUB(IfcRelDefinesByProperties);
	4058	DECL_CONV_STUB(IfcActor);
	4059	DECL_CONV_STUB(IfcOccupant);
	4060	DECL_CONV_STUB(IfcHumidifierType);
	4061	DECL_CONV_STUB(IfcArbitraryOpenProfileDef);
	4062	DECL_CONV_STUB(IfcPermit);
	4063	DECL_CONV_STUB(IfcOffsetCurve3D);
	4064	DECL_CONV_STUB(IfcLightSource);
	4065	DECL_CONV_STUB(IfcLightSourcePositional);
	4066	DECL_CONV_STUB(IfcCompositeProfileDef);
	4067	DECL_CONV_STUB(IfcRamp);
	4068	DECL_CONV_STUB(IfcFlowMovingDevice);
	4069	DECL_CONV_STUB(IfcSpaceHeaterType);
	4070	DECL_CONV_STUB(IfcLampType);
	4071	DECL_CONV_STUB(IfcBuildingElementComponent);
	4072	DECL_CONV_STUB(IfcReinforcingElement);
	4073	DECL_CONV_STUB(IfcReinforcingBar);
	4074	DECL_CONV_STUB(IfcElectricHeaterType);
	4075	DECL_CONV_STUB(IfcTShapeProfileDef);
	4076	DECL_CONV_STUB(IfcStructuralActivity);
	4077	DECL_CONV_STUB(IfcStructuralAction);
	4078	DECL_CONV_STUB(IfcDuctFittingType);
	4079	DECL_CONV_STUB(IfcCartesianTransformationOperator2D);
	4080	DECL_CONV_STUB(IfcCartesianTransformationOperator2DnonUniform);
	4081	DECL_CONV_STUB(IfcVirtualElement);
	4082	DECL_CONV_STUB(IfcRightCircularCylinder);
	4083	DECL_CONV_STUB(IfcOutletType);
	4084	DECL_CONV_STUB(IfcRelDecomposes);
	4085	DECL_CONV_STUB(IfcCovering);
	4086	DECL_CONV_STUB(IfcPolyline);
	4087	DECL_CONV_STUB(IfcPath);
	4088	DECL_CONV_STUB(IfcElementComponent);
	4089	DECL_CONV_STUB(IfcFastener);
	4090	DECL_CONV_STUB(IfcMappedItem);
	4091	DECL_CONV_STUB(IfcRectangularPyramid);
	4092	DECL_CONV_STUB(IfcCrewResource);
	4093	DECL_CONV_STUB(IfcNamedUnit);
	4094	DECL_CONV_STUB(IfcContextDependentUnit);
	4095	DECL_CONV_STUB(IfcUnitaryEquipmentType);
	4096	DECL_CONV_STUB(IfcRoof);
	4097	DECL_CONV_STUB(IfcStructuralMember);
3867	4098	DECL_CONV_STUB(IfcStyleModel);
3868	4099	DECL_CONV_STUB(IfcStyledRepresentation);
3869		DECL_CONV_STUB(IfcBooleanResult);
3870		DECL_CONV_STUB(IfcFeatureElement);
3871		DECL_CONV_STUB(IfcFeatureElementSubtraction);
3872		DECL_CONV_STUB(IfcOpeningElement);
3873		DECL_CONV_STUB(IfcConditionCriterion);
3874		DECL_CONV_STUB(IfcFlowTerminalType);
3875		DECL_CONV_STUB(IfcFlowControllerType);
3876		DECL_CONV_STUB(IfcSwitchingDeviceType);
3877		DECL_CONV_STUB(IfcSystem);
3878		DECL_CONV_STUB(IfcElectricalCircuit);
3879		DECL_CONV_STUB(IfcUnitaryEquipmentType);
3880		DECL_CONV_STUB(IfcPort);
3881		DECL_CONV_STUB(IfcPlacement);
3882		DECL_CONV_STUB(IfcProfileDef);
3883		DECL_CONV_STUB(IfcArbitraryClosedProfileDef);
3884		DECL_CONV_STUB(IfcCurve);
	4100	DECL_CONV_STUB(IfcSpatialStructureElement);
	4101	DECL_CONV_STUB(IfcBuilding);
	4102	DECL_CONV_STUB(IfcConnectedFaceSet);
	4103	DECL_CONV_STUB(IfcOpenShell);
	4104	DECL_CONV_STUB(IfcFacetedBrep);
3885	4105	DECL_CONV_STUB(IfcConic);
3886		DECL_CONV_STUB(IfcCircle);
3887		DECL_CONV_STUB(IfcElementarySurface);
3888		DECL_CONV_STUB(IfcPlane);
3889		DECL_CONV_STUB(IfcCostSchedule);
3890		DECL_CONV_STUB(IfcRightCircularCone);
3891		DECL_CONV_STUB(IfcElementAssembly);
3892		DECL_CONV_STUB(IfcBuildingElement);
3893		DECL_CONV_STUB(IfcMember);
3894		DECL_CONV_STUB(IfcBuildingElementProxy);
3895		DECL_CONV_STUB(IfcStructuralActivity);
3896		DECL_CONV_STUB(IfcStructuralAction);
3897		DECL_CONV_STUB(IfcStructuralPlanarAction);
3898		DECL_CONV_STUB(IfcTopologicalRepresentationItem);
3899		DECL_CONV_STUB(IfcConnectedFaceSet);
3900		DECL_CONV_STUB(IfcSweptSurface);
3901		DECL_CONV_STUB(IfcSurfaceOfLinearExtrusion);
3902		DECL_CONV_STUB(IfcArbitraryProfileDefWithVoids);
3903		DECL_CONV_STUB(IfcProcess);
3904		DECL_CONV_STUB(IfcProcedure);
3905		DECL_CONV_STUB(IfcVector);
3906		DECL_CONV_STUB(IfcFaceBound);
3907		DECL_CONV_STUB(IfcFaceOuterBound);
3908		DECL_CONV_STUB(IfcFeatureElementAddition);
3909		DECL_CONV_STUB(IfcNamedUnit);
3910		DECL_CONV_STUB(IfcConversionBasedUnit);
3911		DECL_CONV_STUB(IfcHeatExchangerType);
3912		DECL_CONV_STUB(IfcPresentationStyleAssignment);
3913		DECL_CONV_STUB(IfcFlowTreatmentDeviceType);
3914		DECL_CONV_STUB(IfcFilterType);
3915		DECL_CONV_STUB(IfcResource);
3916		DECL_CONV_STUB(IfcEvaporativeCoolerType);
3917		DECL_CONV_STUB(IfcOffsetCurve2D);
3918		DECL_CONV_STUB(IfcEdge);
3919		DECL_CONV_STUB(IfcSubedge);
3920		DECL_CONV_STUB(IfcProxy);
3921		DECL_CONV_STUB(IfcLine);
3922		DECL_CONV_STUB(IfcColumn);
3923		DECL_CONV_STUB(IfcObjectPlacement);
3924		DECL_CONV_STUB(IfcGridPlacement);
3925		DECL_CONV_STUB(IfcDistributionControlElementType);
3926		DECL_CONV_STUB(IfcRelConnects);
3927		DECL_CONV_STUB(IfcAnnotation);
3928		DECL_CONV_STUB(IfcPlate);
3929		DECL_CONV_STUB(IfcSolidModel);
3930		DECL_CONV_STUB(IfcManifoldSolidBrep);
3931		DECL_CONV_STUB(IfcFlowStorageDeviceType);
3932		DECL_CONV_STUB(IfcStructuralItem);
3933		DECL_CONV_STUB(IfcStructuralMember);
3934		DECL_CONV_STUB(IfcStructuralCurveMember);
3935		DECL_CONV_STUB(IfcStructuralConnection);
3936		DECL_CONV_STUB(IfcStructuralSurfaceConnection);
3937		DECL_CONV_STUB(IfcCoilType);
3938		DECL_CONV_STUB(IfcDuctFittingType);
	4106	DECL_CONV_STUB(IfcCoveringType);
	4107	DECL_CONV_STUB(IfcRoundedRectangleProfileDef);
	4108	DECL_CONV_STUB(IfcAirTerminalType);
	4109	DECL_CONV_STUB(IfcFlowMovingDeviceType);
	4110	DECL_CONV_STUB(IfcCompressorType);
	4111	DECL_CONV_STUB(IfcIShapeProfileDef);
	4112	DECL_CONV_STUB(IfcAsymmetricIShapeProfileDef);
	4113	DECL_CONV_STUB(IfcControllerType);
	4114	DECL_CONV_STUB(IfcRailing);
	4115	DECL_CONV_STUB(IfcGroup);
	4116	DECL_CONV_STUB(IfcAsset);
	4117	DECL_CONV_STUB(IfcMaterialDefinitionRepresentation);
	4118	DECL_CONV_STUB(IfcRailingType);
	4119	DECL_CONV_STUB(IfcWall);
	4120	DECL_CONV_STUB(IfcStructuralPointConnection);
	4121	DECL_CONV_STUB(IfcPropertyListValue);
	4122	DECL_CONV_STUB(IfcFurnitureStandard);
	4123	DECL_CONV_STUB(IfcElectricGeneratorType);
	4124	DECL_CONV_STUB(IfcDoor);
3939	4125	DECL_CONV_STUB(IfcStyledItem);
3940	4126	DECL_CONV_STUB(IfcAnnotationOccurrence);
3941		DECL_CONV_STUB(IfcAnnotationCurveOccurrence);
3942		DECL_CONV_STUB(IfcDimensionCurve);
3943		DECL_CONV_STUB(IfcBoundedCurve);
3944		DECL_CONV_STUB(IfcAxis1Placement);
3945		DECL_CONV_STUB(IfcStructuralPointAction);
3946		DECL_CONV_STUB(IfcSpatialStructureElement);
3947		DECL_CONV_STUB(IfcSpace);
3948		DECL_CONV_STUB(IfcContextDependentUnit);
3949		DECL_CONV_STUB(IfcCoolingTowerType);
3950		DECL_CONV_STUB(IfcFacetedBrepWithVoids);
3951		DECL_CONV_STUB(IfcValveType);
3952		DECL_CONV_STUB(IfcSystemFurnitureElementType);
3953		DECL_CONV_STUB(IfcDiscreteAccessory);
3954		DECL_CONV_STUB(IfcBuildingElementType);
3955		DECL_CONV_STUB(IfcRailingType);
3956		DECL_CONV_STUB(IfcGasTerminalType);
3957		DECL_CONV_STUB(IfcSpaceProgram);
3958		DECL_CONV_STUB(IfcCovering);
3959		DECL_CONV_STUB(IfcPresentationStyle);
3960		DECL_CONV_STUB(IfcElectricHeaterType);
3961		DECL_CONV_STUB(IfcBuildingStorey);
3962		DECL_CONV_STUB(IfcVertex);
3963		DECL_CONV_STUB(IfcVertexPoint);
3964		DECL_CONV_STUB(IfcFlowInstrumentType);
3965		DECL_CONV_STUB(IfcParameterizedProfileDef);
3966		DECL_CONV_STUB(IfcUShapeProfileDef);
3967		DECL_CONV_STUB(IfcRamp);
3968		DECL_CONV_STUB(IfcCompositeCurve);
3969		DECL_CONV_STUB(IfcStructuralCurveMemberVarying);
3970		DECL_CONV_STUB(IfcRampFlightType);
3971		DECL_CONV_STUB(IfcDraughtingCallout);
3972		DECL_CONV_STUB(IfcDimensionCurveDirectedCallout);
3973		DECL_CONV_STUB(IfcRadiusDimension);
3974		DECL_CONV_STUB(IfcEdgeFeature);
3975		DECL_CONV_STUB(IfcSweptAreaSolid);
3976		DECL_CONV_STUB(IfcExtrudedAreaSolid);
3977		DECL_CONV_STUB(IfcAnnotationTextOccurrence);
	4127	DECL_CONV_STUB(IfcAnnotationSymbolOccurrence);
	4128	DECL_CONV_STUB(IfcArbitraryClosedProfileDef);
	4129	DECL_CONV_STUB(IfcArbitraryProfileDefWithVoids);
	4130	DECL_CONV_STUB(IfcLine);
	4131	DECL_CONV_STUB(IfcFlowSegmentType);
	4132	DECL_CONV_STUB(IfcAirTerminalBoxType);
	4133	DECL_CONV_STUB(IfcPropertySingleValue);
	4134	DECL_CONV_STUB(IfcAlarmType);
	4135	DECL_CONV_STUB(IfcEllipseProfileDef);
3978	4136	DECL_CONV_STUB(IfcStair);
3979		DECL_CONV_STUB(IfcFillAreaStyleTileSymbolWithStyle);
3980		DECL_CONV_STUB(IfcAnnotationSymbolOccurrence);
3981		DECL_CONV_STUB(IfcTerminatorSymbol);
3982		DECL_CONV_STUB(IfcDimensionCurveTerminator);
3983		DECL_CONV_STUB(IfcRectangleProfileDef);
3984		DECL_CONV_STUB(IfcRectangleHollowProfileDef);
3985		DECL_CONV_STUB(IfcLocalPlacement);
3986		DECL_CONV_STUB(IfcTask);
3987		DECL_CONV_STUB(IfcAnnotationFillAreaOccurrence);
3988		DECL_CONV_STUB(IfcFace);
3989		DECL_CONV_STUB(IfcFlowSegmentType);
3990		DECL_CONV_STUB(IfcDuctSegmentType);
3991		DECL_CONV_STUB(IfcConstructionResource);
3992		DECL_CONV_STUB(IfcConstructionEquipmentResource);
3993		DECL_CONV_STUB(IfcSanitaryTerminalType);
3994		DECL_CONV_STUB(IfcCircleProfileDef);
3995		DECL_CONV_STUB(IfcStructuralReaction);
3996		DECL_CONV_STUB(IfcStructuralPointReaction);
3997		DECL_CONV_STUB(IfcRailing);
3998		DECL_CONV_STUB(IfcTextLiteral);
3999		DECL_CONV_STUB(IfcCartesianTransformationOperator);
4000		DECL_CONV_STUB(IfcLinearDimension);
4001		DECL_CONV_STUB(IfcDamperType);
4002		DECL_CONV_STUB(IfcSIUnit);
4003		DECL_CONV_STUB(IfcMeasureWithUnit);
4004		DECL_CONV_STUB(IfcDistributionElement);
4005		DECL_CONV_STUB(IfcDistributionControlElement);
4006		DECL_CONV_STUB(IfcTransformerType);
4007		DECL_CONV_STUB(IfcLaborResource);
4008		DECL_CONV_STUB(IfcDerivedProfileDef);
4009		DECL_CONV_STUB(IfcFurnitureStandard);
4010		DECL_CONV_STUB(IfcStairFlightType);
4011		DECL_CONV_STUB(IfcWorkControl);
4012		DECL_CONV_STUB(IfcWorkPlan);
4013		DECL_CONV_STUB(IfcCondition);
4014		DECL_CONV_STUB(IfcRelVoidsElement);
4015		DECL_CONV_STUB(IfcWindow);
4016		DECL_CONV_STUB(IfcProtectiveDeviceType);
4017		DECL_CONV_STUB(IfcJunctionBoxType);
4018		DECL_CONV_STUB(IfcStructuralAnalysisModel);
4019		DECL_CONV_STUB(IfcAxis2Placement2D);
4020		DECL_CONV_STUB(IfcSpaceType);
4021		DECL_CONV_STUB(IfcEllipseProfileDef);
4022		DECL_CONV_STUB(IfcDistributionFlowElement);
4023		DECL_CONV_STUB(IfcFlowMovingDevice);
4024		DECL_CONV_STUB(IfcSurfaceStyleWithTextures);
4025		DECL_CONV_STUB(IfcGeometricSet);
4026		DECL_CONV_STUB(IfcProjectOrder);
4027		DECL_CONV_STUB(IfcBSplineCurve);
4028		DECL_CONV_STUB(IfcBezierCurve);
4029		DECL_CONV_STUB(IfcStructuralPointConnection);
4030		DECL_CONV_STUB(IfcFlowController);
4031		DECL_CONV_STUB(IfcElectricDistributionPoint);
4032		DECL_CONV_STUB(IfcSite);
4033		DECL_CONV_STUB(IfcOffsetCurve3D);
4034		DECL_CONV_STUB(IfcVirtualElement);
4035		DECL_CONV_STUB(IfcConstructionProductResource);
4036		DECL_CONV_STUB(IfcSurfaceCurveSweptAreaSolid);
4037		DECL_CONV_STUB(IfcCartesianTransformationOperator3D);
4038		DECL_CONV_STUB(IfcCartesianTransformationOperator3DnonUniform);
4039		DECL_CONV_STUB(IfcCrewResource);
4040		DECL_CONV_STUB(IfcStructuralSurfaceMember);
4041		DECL_CONV_STUB(Ifc2DCompositeCurve);
4042		DECL_CONV_STUB(IfcRepresentationContext);
4043		DECL_CONV_STUB(IfcGeometricRepresentationContext);
4044		DECL_CONV_STUB(IfcFlowTreatmentDevice);
4045		DECL_CONV_STUB(IfcRightCircularCylinder);
4046		DECL_CONV_STUB(IfcWasteTerminalType);
4047		DECL_CONV_STUB(IfcBuildingElementComponent);
4048		DECL_CONV_STUB(IfcBuildingElementPart);
4049		DECL_CONV_STUB(IfcWall);
4050		DECL_CONV_STUB(IfcWallStandardCase);
4051		DECL_CONV_STUB(IfcPath);
	4137	DECL_CONV_STUB(IfcSurfaceStyleShading);
	4138	DECL_CONV_STUB(IfcPumpType);
4052	4139	DECL_CONV_STUB(IfcDefinedSymbol);
4053		DECL_CONV_STUB(IfcStructuralSurfaceMemberVarying);
4054		DECL_CONV_STUB(IfcPoint);
4055		DECL_CONV_STUB(IfcSurfaceOfRevolution);
4056		DECL_CONV_STUB(IfcFlowTerminal);
4057		DECL_CONV_STUB(IfcFurnishingElement);
4058		DECL_CONV_STUB(IfcSurfaceStyleShading);
4059		DECL_CONV_STUB(IfcSurfaceStyleRendering);
4060		DECL_CONV_STUB(IfcCircleHollowProfileDef);
4061		DECL_CONV_STUB(IfcFlowMovingDeviceType);
4062		DECL_CONV_STUB(IfcFanType);
4063		DECL_CONV_STUB(IfcStructuralPlanarActionVarying);
4064		DECL_CONV_STUB(IfcProductRepresentation);
4065		DECL_CONV_STUB(IfcStackTerminalType);
4066		DECL_CONV_STUB(IfcReinforcingElement);
4067		DECL_CONV_STUB(IfcReinforcingMesh);
4068		DECL_CONV_STUB(IfcOrderAction);
4069		DECL_CONV_STUB(IfcLightSource);
4070		DECL_CONV_STUB(IfcLightSourceDirectional);
4071		DECL_CONV_STUB(IfcLoop);
4072		DECL_CONV_STUB(IfcVertexLoop);
4073		DECL_CONV_STUB(IfcChamferEdgeFeature);
4074	4140	DECL_CONV_STUB(IfcElementComponentType);
4075	4141	DECL_CONV_STUB(IfcFastenerType);
4076	4142	DECL_CONV_STUB(IfcMechanicalFastenerType);
	4143	DECL_CONV_STUB(IfcFlowFitting);
	4144	DECL_CONV_STUB(IfcLightSourceDirectional);
	4145	DECL_CONV_STUB(IfcSurfaceStyle);
	4146	DECL_CONV_STUB(IfcAnnotationSurface);
	4147	DECL_CONV_STUB(IfcFlowController);
	4148	DECL_CONV_STUB(IfcBuildingStorey);
	4149	DECL_CONV_STUB(IfcWorkControl);
	4150	DECL_CONV_STUB(IfcWorkSchedule);
	4151	DECL_CONV_STUB(IfcDuctSegmentType);
	4152	DECL_CONV_STUB(IfcFace);
	4153	DECL_CONV_STUB(IfcStructuralSurfaceMember);
	4154	DECL_CONV_STUB(IfcStructuralSurfaceMemberVarying);
	4155	DECL_CONV_STUB(IfcFaceSurface);
	4156	DECL_CONV_STUB(IfcCostSchedule);
	4157	DECL_CONV_STUB(IfcPlanarExtent);
	4158	DECL_CONV_STUB(IfcPlanarBox);
	4159	DECL_CONV_STUB(IfcColourSpecification);
	4160	DECL_CONV_STUB(IfcVector);
	4161	DECL_CONV_STUB(IfcBeam);
	4162	DECL_CONV_STUB(IfcColourRgb);
	4163	DECL_CONV_STUB(IfcStructuralPlanarAction);
	4164	DECL_CONV_STUB(IfcStructuralPlanarActionVarying);
	4165	DECL_CONV_STUB(IfcSite);
	4166	DECL_CONV_STUB(IfcDiscreteAccessoryType);
	4167	DECL_CONV_STUB(IfcVibrationIsolatorType);
	4168	DECL_CONV_STUB(IfcEvaporativeCoolerType);
	4169	DECL_CONV_STUB(IfcDistributionChamberElementType);
	4170	DECL_CONV_STUB(IfcFeatureElementAddition);
	4171	DECL_CONV_STUB(IfcStructuredDimensionCallout);
	4172	DECL_CONV_STUB(IfcCoolingTowerType);
	4173	DECL_CONV_STUB(IfcCenterLineProfileDef);
	4174	DECL_CONV_STUB(IfcWindowStyle);
	4175	DECL_CONV_STUB(IfcLightSourceGoniometric);
	4176	DECL_CONV_STUB(IfcTransformerType);
	4177	DECL_CONV_STUB(IfcMemberType);
	4178	DECL_CONV_STUB(IfcSurfaceOfLinearExtrusion);
	4179	DECL_CONV_STUB(IfcMotorConnectionType);
	4180	DECL_CONV_STUB(IfcFlowTreatmentDeviceType);
	4181	DECL_CONV_STUB(IfcDuctSilencerType);
	4182	DECL_CONV_STUB(IfcFurnishingElementType);
	4183	DECL_CONV_STUB(IfcSystemFurnitureElementType);
	4184	DECL_CONV_STUB(IfcWasteTerminalType);
	4185	DECL_CONV_STUB(IfcBSplineCurve);
	4186	DECL_CONV_STUB(IfcBezierCurve);
	4187	DECL_CONV_STUB(IfcActuatorType);
	4188	DECL_CONV_STUB(IfcDistributionControlElement);
	4189	DECL_CONV_STUB(IfcAnnotation);
	4190	DECL_CONV_STUB(IfcShellBasedSurfaceModel);
	4191	DECL_CONV_STUB(IfcActionRequest);
	4192	DECL_CONV_STUB(IfcExtrudedAreaSolid);
	4193	DECL_CONV_STUB(IfcSystem);
	4194	DECL_CONV_STUB(IfcFillAreaStyleHatching);
	4195	DECL_CONV_STUB(IfcRelVoidsElement);
	4196	DECL_CONV_STUB(IfcSurfaceCurveSweptAreaSolid);
	4197	DECL_CONV_STUB(IfcCartesianTransformationOperator3DnonUniform);
	4198	DECL_CONV_STUB(IfcCurtainWallType);
	4199	DECL_CONV_STUB(IfcEquipmentStandard);
	4200	DECL_CONV_STUB(IfcFlowStorageDeviceType);
	4201	DECL_CONV_STUB(IfcDiameterDimension);
	4202	DECL_CONV_STUB(IfcSwitchingDeviceType);
	4203	DECL_CONV_STUB(IfcWindow);
	4204	DECL_CONV_STUB(IfcFlowTreatmentDevice);
	4205	DECL_CONV_STUB(IfcChillerType);
	4206	DECL_CONV_STUB(IfcRectangleHollowProfileDef);
	4207	DECL_CONV_STUB(IfcBoxedHalfSpace);
	4208	DECL_CONV_STUB(IfcAxis2Placement2D);
	4209	DECL_CONV_STUB(IfcSpaceProgram);
	4210	DECL_CONV_STUB(IfcPoint);
	4211	DECL_CONV_STUB(IfcCartesianPoint);
	4212	DECL_CONV_STUB(IfcBoundedSurface);
	4213	DECL_CONV_STUB(IfcLoop);
	4214	DECL_CONV_STUB(IfcPolyLoop);
	4215	DECL_CONV_STUB(IfcTerminatorSymbol);
	4216	DECL_CONV_STUB(IfcDimensionCurveTerminator);
	4217	DECL_CONV_STUB(IfcTrapeziumProfileDef);
	4218	DECL_CONV_STUB(IfcRepresentationContext);
	4219	DECL_CONV_STUB(IfcGeometricRepresentationContext);
	4220	DECL_CONV_STUB(IfcCurveBoundedPlane);
	4221	DECL_CONV_STUB(IfcSIUnit);
	4222	DECL_CONV_STUB(IfcStructuralReaction);
	4223	DECL_CONV_STUB(IfcStructuralPointReaction);
	4224	DECL_CONV_STUB(IfcAxis1Placement);
	4225	DECL_CONV_STUB(IfcElectricApplianceType);
	4226	DECL_CONV_STUB(IfcSensorType);
	4227	DECL_CONV_STUB(IfcFurnishingElement);
	4228	DECL_CONV_STUB(IfcProtectiveDeviceType);
	4229	DECL_CONV_STUB(IfcZShapeProfileDef);
4077	4230	DECL_CONV_STUB(IfcScheduleTimeControl);
4078		DECL_CONV_STUB(IfcSurfaceStyle);
4079		DECL_CONV_STUB(IfcOpenShell);
4080		DECL_CONV_STUB(IfcSubContractResource);
4081		DECL_CONV_STUB(IfcSweptDiskSolid);
4082		DECL_CONV_STUB(IfcCompositeProfileDef);
	4231	DECL_CONV_STUB(IfcRepresentationMap);
	4232	DECL_CONV_STUB(IfcClosedShell);
	4233	DECL_CONV_STUB(IfcBuildingElementPart);
	4234	DECL_CONV_STUB(IfcBlock);
	4235	DECL_CONV_STUB(IfcLightFixtureType);
	4236	DECL_CONV_STUB(IfcOpeningElement);
	4237	DECL_CONV_STUB(IfcLightSourceSpot);
	4238	DECL_CONV_STUB(IfcTendonAnchor);
	4239	DECL_CONV_STUB(IfcElectricFlowStorageDeviceType);
	4240	DECL_CONV_STUB(IfcSphere);
	4241	DECL_CONV_STUB(IfcDamperType);
	4242	DECL_CONV_STUB(IfcProjectOrderRecord);
	4243	DECL_CONV_STUB(IfcDistributionChamberElement);
	4244	DECL_CONV_STUB(IfcMechanicalFastener);
	4245	DECL_CONV_STUB(IfcRectangularTrimmedSurface);
	4246	DECL_CONV_STUB(IfcZone);
	4247	DECL_CONV_STUB(IfcFanType);
	4248	DECL_CONV_STUB(IfcGeometricSet);
	4249	DECL_CONV_STUB(IfcFillAreaStyleTiles);
	4250	DECL_CONV_STUB(IfcCableSegmentType);
	4251	DECL_CONV_STUB(IfcRelOverridesProperties);
	4252	DECL_CONV_STUB(IfcMeasureWithUnit);
	4253	DECL_CONV_STUB(IfcSlabType);
	4254	DECL_CONV_STUB(IfcServiceLife);
	4255	DECL_CONV_STUB(IfcFurnitureType);
	4256	DECL_CONV_STUB(IfcCostItem);
	4257	DECL_CONV_STUB(IfcReinforcingMesh);
	4258	DECL_CONV_STUB(IfcFacetedBrepWithVoids);
	4259	DECL_CONV_STUB(IfcGasTerminalType);
	4260	DECL_CONV_STUB(IfcPile);
	4261	DECL_CONV_STUB(IfcFillAreaStyleTileSymbolWithStyle);
	4262	DECL_CONV_STUB(IfcConstructionMaterialResource);
	4263	DECL_CONV_STUB(IfcAnnotationCurveOccurrence);
	4264	DECL_CONV_STUB(IfcDimensionCurve);
	4265	DECL_CONV_STUB(IfcGeometricCurveSet);
	4266	DECL_CONV_STUB(IfcRelAggregates);
	4267	DECL_CONV_STUB(IfcFaceBasedSurfaceModel);
	4268	DECL_CONV_STUB(IfcEnergyConversionDevice);
	4269	DECL_CONV_STUB(IfcRampFlight);
	4270	DECL_CONV_STUB(IfcVertexLoop);
	4271	DECL_CONV_STUB(IfcPlate);
	4272	DECL_CONV_STUB(IfcUShapeProfileDef);
	4273	DECL_CONV_STUB(IfcFaceBound);
	4274	DECL_CONV_STUB(IfcFaceOuterBound);
	4275	DECL_CONV_STUB(IfcOneDirectionRepeatFactor);
	4276	DECL_CONV_STUB(IfcBoilerType);
	4277	DECL_CONV_STUB(IfcConstructionEquipmentResource);
	4278	DECL_CONV_STUB(IfcComplexProperty);
	4279	DECL_CONV_STUB(IfcFooting);
	4280	DECL_CONV_STUB(IfcConstructionProductResource);
	4281	DECL_CONV_STUB(IfcDerivedProfileDef);
	4282	DECL_CONV_STUB(IfcPropertyTableValue);
	4283	DECL_CONV_STUB(IfcFlowMeterType);
	4284	DECL_CONV_STUB(IfcDoorStyle);
	4285	DECL_CONV_STUB(IfcUnitAssignment);
	4286	DECL_CONV_STUB(IfcFlowTerminal);
	4287	DECL_CONV_STUB(IfcCraneRailFShapeProfileDef);
	4288	DECL_CONV_STUB(IfcFlowSegment);
	4289	DECL_CONV_STUB(IfcElementQuantity);
	4290	DECL_CONV_STUB(IfcCurtainWall);
	4291	DECL_CONV_STUB(IfcDiscreteAccessory);
	4292	DECL_CONV_STUB(IfcGrid);
	4293	DECL_CONV_STUB(IfcSanitaryTerminalType);
	4294	DECL_CONV_STUB(IfcSubedge);
	4295	DECL_CONV_STUB(IfcFilterType);
	4296	DECL_CONV_STUB(IfcTendon);
	4297	DECL_CONV_STUB(IfcStructuralLoadGroup);
	4298	DECL_CONV_STUB(IfcPresentationStyleAssignment);
	4299	DECL_CONV_STUB(IfcStructuralCurveMember);
	4300	DECL_CONV_STUB(IfcLightSourceAmbient);
	4301	DECL_CONV_STUB(IfcCondition);
	4302	DECL_CONV_STUB(IfcPort);
	4303	DECL_CONV_STUB(IfcSpace);
	4304	DECL_CONV_STUB(IfcHeatExchangerType);
4083	4305	DECL_CONV_STUB(IfcTankType);
4084		DECL_CONV_STUB(IfcSphere);
4085		DECL_CONV_STUB(IfcPolyLoop);
4086		DECL_CONV_STUB(IfcCableCarrierFittingType);
4087		DECL_CONV_STUB(IfcHumidifierType);
4088		DECL_CONV_STUB(IfcPerformanceHistory);
4089		DECL_CONV_STUB(IfcShapeModel);
4090		DECL_CONV_STUB(IfcTopologyRepresentation);
4091		DECL_CONV_STUB(IfcBuilding);
4092		DECL_CONV_STUB(IfcRoundedRectangleProfileDef);
	4306	DECL_CONV_STUB(IfcInventory);
	4307	DECL_CONV_STUB(IfcTransportElementType);
	4308	DECL_CONV_STUB(IfcAirToAirHeatRecoveryType);
4093	4309	DECL_CONV_STUB(IfcStairFlight);
4094		DECL_CONV_STUB(IfcDistributionChamberElement);
4095		DECL_CONV_STUB(IfcShapeRepresentation);
4096		DECL_CONV_STUB(IfcRampFlight);
4097		DECL_CONV_STUB(IfcBeamType);
4098		DECL_CONV_STUB(IfcRelDecomposes);
4099		DECL_CONV_STUB(IfcRoof);
4100		DECL_CONV_STUB(IfcFooting);
4101		DECL_CONV_STUB(IfcLightSourceAmbient);
4102		DECL_CONV_STUB(IfcWindowStyle);
4103		DECL_CONV_STUB(IfcBuildingElementProxyType);
4104		DECL_CONV_STUB(IfcAxis2Placement3D);
4105		DECL_CONV_STUB(IfcEdgeCurve);
4106		DECL_CONV_STUB(IfcClosedShell);
4107		DECL_CONV_STUB(IfcTendonAnchor);
4108		DECL_CONV_STUB(IfcCondenserType);
4109		DECL_CONV_STUB(IfcPipeSegmentType);
4110		DECL_CONV_STUB(IfcPointOnSurface);
4111		DECL_CONV_STUB(IfcAsset);
4112		DECL_CONV_STUB(IfcLightSourcePositional);
4113		DECL_CONV_STUB(IfcProjectionCurve);
4114		DECL_CONV_STUB(IfcFillAreaStyleTiles);
4115		DECL_CONV_STUB(IfcRelFillsElement);
4116		DECL_CONV_STUB(IfcElectricMotorType);
4117		DECL_CONV_STUB(IfcTendon);
4118		DECL_CONV_STUB(IfcDistributionChamberElementType);
4119		DECL_CONV_STUB(IfcMemberType);
	4310	DECL_CONV_STUB(IfcElectricalElement);
	4311	DECL_CONV_STUB(IfcSurfaceStyleWithTextures);
	4312	DECL_CONV_STUB(IfcBoundingBox);
	4313	DECL_CONV_STUB(IfcWallType);
	4314	DECL_CONV_STUB(IfcMove);
	4315	DECL_CONV_STUB(IfcCircle);
	4316	DECL_CONV_STUB(IfcOffsetCurve2D);
	4317	DECL_CONV_STUB(IfcPointOnCurve);
	4318	DECL_CONV_STUB(IfcStructuralResultGroup);
	4319	DECL_CONV_STUB(IfcSectionedSpine);
	4320	DECL_CONV_STUB(IfcSlab);
	4321	DECL_CONV_STUB(IfcVertex);
	4322	DECL_CONV_STUB(IfcVertexPoint);
4120	4323	DECL_CONV_STUB(IfcStructuralLinearAction);
4121	4324	DECL_CONV_STUB(IfcStructuralLinearActionVarying);
	4325	DECL_CONV_STUB(IfcBuildingElementProxyType);
	4326	DECL_CONV_STUB(IfcProjectionElement);
	4327	DECL_CONV_STUB(IfcConversionBasedUnit);
	4328	DECL_CONV_STUB(IfcGeometricRepresentationSubContext);
	4329	DECL_CONV_STUB(IfcAnnotationSurfaceOccurrence);
	4330	DECL_CONV_STUB(IfcRoundedEdgeFeature);
	4331	DECL_CONV_STUB(IfcElectricDistributionPoint);
	4332	DECL_CONV_STUB(IfcCableCarrierSegmentType);
	4333	DECL_CONV_STUB(IfcWallStandardCase);
	4334	DECL_CONV_STUB(IfcCsgSolid);
	4335	DECL_CONV_STUB(IfcBeamType);
	4336	DECL_CONV_STUB(IfcAnnotationFillArea);
	4337	DECL_CONV_STUB(IfcStructuralCurveMemberVarying);
	4338	DECL_CONV_STUB(IfcPointOnSurface);
	4339	DECL_CONV_STUB(IfcOrderAction);
	4340	DECL_CONV_STUB(IfcEdgeLoop);
	4341	DECL_CONV_STUB(IfcAnnotationFillAreaOccurrence);
	4342	DECL_CONV_STUB(IfcWorkPlan);
	4343	DECL_CONV_STUB(IfcEllipse);
4122	4344	DECL_CONV_STUB(IfcProductDefinitionShape);
4123		DECL_CONV_STUB(IfcFastener);
4124		DECL_CONV_STUB(IfcMechanicalFastener);
4125		DECL_CONV_STUB(IfcEvaporatorType);
4126		DECL_CONV_STUB(IfcDiscreteAccessoryType);
4127		DECL_CONV_STUB(IfcStructuralCurveConnection);
4128		DECL_CONV_STUB(IfcProjectionElement);
4129		DECL_CONV_STUB(IfcCoveringType);
4130		DECL_CONV_STUB(IfcPumpType);
4131		DECL_CONV_STUB(IfcPile);
4132		DECL_CONV_STUB(IfcUnitAssignment);
4133		DECL_CONV_STUB(IfcBoundingBox);
4134		DECL_CONV_STUB(IfcShellBasedSurfaceModel);
4135		DECL_CONV_STUB(IfcFacetedBrep);
4136		DECL_CONV_STUB(IfcTextLiteralWithExtent);
4137		DECL_CONV_STUB(IfcElectricApplianceType);
4138		DECL_CONV_STUB(IfcTrapeziumProfileDef);
4139		DECL_CONV_STUB(IfcRelContainedInSpatialStructure);
4140		DECL_CONV_STUB(IfcEdgeLoop);
4141		DECL_CONV_STUB(IfcProject);
4142		DECL_CONV_STUB(IfcCartesianPoint);
4143		DECL_CONV_STUB(IfcCurveBoundedPlane);
4144		DECL_CONV_STUB(IfcWallType);
4145		DECL_CONV_STUB(IfcFillAreaStyleHatching);
4146		DECL_CONV_STUB(IfcEquipmentStandard);
4147		DECL_CONV_STUB(IfcDiameterDimension);
4148		DECL_CONV_STUB(IfcStructuralLoadGroup);
4149		DECL_CONV_STUB(IfcConstructionMaterialResource);
4150		DECL_CONV_STUB(IfcRelAggregates);
4151		DECL_CONV_STUB(IfcBoilerType);
4152		DECL_CONV_STUB(IfcColourSpecification);
4153		DECL_CONV_STUB(IfcColourRgb);
4154		DECL_CONV_STUB(IfcDoorStyle);
4155		DECL_CONV_STUB(IfcDuctSilencerType);
4156		DECL_CONV_STUB(IfcLightSourceGoniometric);
4157		DECL_CONV_STUB(IfcActuatorType);
4158		DECL_CONV_STUB(IfcSensorType);
4159		DECL_CONV_STUB(IfcAirTerminalBoxType);
4160		DECL_CONV_STUB(IfcAnnotationSurfaceOccurrence);
4161		DECL_CONV_STUB(IfcZShapeProfileDef);
	4345	DECL_CONV_STUB(IfcProjectionCurve);
	4346	DECL_CONV_STUB(IfcElectricalCircuit);
4162	4347	DECL_CONV_STUB(IfcRationalBezierCurve);
4163		DECL_CONV_STUB(IfcCartesianTransformationOperator2D);
4164		DECL_CONV_STUB(IfcCartesianTransformationOperator2DnonUniform);
4165		DECL_CONV_STUB(IfcMove);
4166		DECL_CONV_STUB(IfcCableCarrierSegmentType);
4167		DECL_CONV_STUB(IfcElectricalElement);
4168		DECL_CONV_STUB(IfcChillerType);
4169		DECL_CONV_STUB(IfcReinforcingBar);
4170		DECL_CONV_STUB(IfcCShapeProfileDef);
4171		DECL_CONV_STUB(IfcPermit);
4172		DECL_CONV_STUB(IfcSlabType);
4173		DECL_CONV_STUB(IfcLampType);
4174		DECL_CONV_STUB(IfcPlanarExtent);
4175		DECL_CONV_STUB(IfcAlarmType);
4176		DECL_CONV_STUB(IfcElectricFlowStorageDeviceType);
4177		DECL_CONV_STUB(IfcEquipmentElement);
4178		DECL_CONV_STUB(IfcLightFixtureType);
4179		DECL_CONV_STUB(IfcCurtainWall);
4180		DECL_CONV_STUB(IfcSlab);
4181		DECL_CONV_STUB(IfcCurtainWallType);
4182		DECL_CONV_STUB(IfcOutletType);
4183		DECL_CONV_STUB(IfcCompressorType);
4184		DECL_CONV_STUB(IfcCraneRailAShapeProfileDef);
4185		DECL_CONV_STUB(IfcFlowSegment);
4186		DECL_CONV_STUB(IfcSectionedSpine);
4187		DECL_CONV_STUB(IfcElectricTimeControlType);
4188		DECL_CONV_STUB(IfcFaceSurface);
4189		DECL_CONV_STUB(IfcMotorConnectionType);
4190		DECL_CONV_STUB(IfcFlowFitting);
4191		DECL_CONV_STUB(IfcPointOnCurve);
4192		DECL_CONV_STUB(IfcTransportElementType);
4193		DECL_CONV_STUB(IfcCableSegmentType);
4194		DECL_CONV_STUB(IfcAnnotationSurface);
4195		DECL_CONV_STUB(IfcCompositeCurveSegment);
4196		DECL_CONV_STUB(IfcServiceLife);
4197		DECL_CONV_STUB(IfcPlateType);
4198		DECL_CONV_STUB(IfcVibrationIsolatorType);
4199		DECL_CONV_STUB(IfcTrimmedCurve);
4200		DECL_CONV_STUB(IfcMappedItem);
4201		DECL_CONV_STUB(IfcDirection);
4202		DECL_CONV_STUB(IfcBlock);
4203		DECL_CONV_STUB(IfcProjectOrderRecord);
4204		DECL_CONV_STUB(IfcFlowMeterType);
4205		DECL_CONV_STUB(IfcControllerType);
4206		DECL_CONV_STUB(IfcBeam);
4207		DECL_CONV_STUB(IfcArbitraryOpenProfileDef);
4208		DECL_CONV_STUB(IfcCenterLineProfileDef);
4209		DECL_CONV_STUB(IfcTimeSeriesSchedule);
4210		DECL_CONV_STUB(IfcRoundedEdgeFeature);
4211		DECL_CONV_STUB(IfcIShapeProfileDef);
4212		DECL_CONV_STUB(IfcSpaceHeaterType);
4213		DECL_CONV_STUB(IfcFlowStorageDevice);
4214		DECL_CONV_STUB(IfcRevolvedAreaSolid);
4215		DECL_CONV_STUB(IfcDoor);
4216		DECL_CONV_STUB(IfcEllipse);
4217		DECL_CONV_STUB(IfcTubeBundleType);
4218		DECL_CONV_STUB(IfcAngularDimension);
4219		DECL_CONV_STUB(IfcFaceBasedSurfaceModel);
4220		DECL_CONV_STUB(IfcCraneRailFShapeProfileDef);
4221		DECL_CONV_STUB(IfcColumnType);
4222		DECL_CONV_STUB(IfcTShapeProfileDef);
4223		DECL_CONV_STUB(IfcEnergyConversionDevice);
4224		DECL_CONV_STUB(IfcWorkSchedule);
4225		DECL_CONV_STUB(IfcZone);
	4348	DECL_CONV_STUB(IfcStructuralPointAction);
	4349	DECL_CONV_STUB(IfcPipeSegmentType);
	4350	DECL_CONV_STUB(IfcTwoDirectionRepeatFactor);
	4351	DECL_CONV_STUB(IfcShapeRepresentation);
	4352	DECL_CONV_STUB(IfcPropertySet);
	4353	DECL_CONV_STUB(IfcSurfaceStyleRendering);
	4354	DECL_CONV_STUB(IfcDistributionPort);
	4355	DECL_CONV_STUB(IfcPipeFittingType);
4226	4356	DECL_CONV_STUB(IfcTransportElement);
4227		DECL_CONV_STUB(IfcGeometricRepresentationSubContext);
4228		DECL_CONV_STUB(IfcLShapeProfileDef);
4229		DECL_CONV_STUB(IfcGeometricCurveSet);
4230		DECL_CONV_STUB(IfcActor);
4231		DECL_CONV_STUB(IfcOccupant);
4232		DECL_CONV_STUB(IfcBooleanClippingResult);
4233		DECL_CONV_STUB(IfcAnnotationFillArea);
4234		DECL_CONV_STUB(IfcLightSourceSpot);
4235		DECL_CONV_STUB(IfcFireSuppressionTerminalType);
4236		DECL_CONV_STUB(IfcElectricGeneratorType);
4237		DECL_CONV_STUB(IfcInventory);
4238		DECL_CONV_STUB(IfcPolyline);
4239		DECL_CONV_STUB(IfcBoxedHalfSpace);
4240		DECL_CONV_STUB(IfcAirTerminalType);
4241		DECL_CONV_STUB(IfcDistributionPort);
4242		DECL_CONV_STUB(IfcCostItem);
4243		DECL_CONV_STUB(IfcStructuredDimensionCallout);
4244		DECL_CONV_STUB(IfcStructuralResultGroup);
4245		DECL_CONV_STUB(IfcOrientedEdge);
4246		DECL_CONV_STUB(IfcCsgSolid);
4247		DECL_CONV_STUB(IfcPlanarBox);
4248		DECL_CONV_STUB(IfcMaterialDefinitionRepresentation);
4249		DECL_CONV_STUB(IfcAsymmetricIShapeProfileDef);
4250		DECL_CONV_STUB(IfcRepresentationMap);
	4357	DECL_CONV_STUB(IfcAnnotationTextOccurrence);
	4358	DECL_CONV_STUB(IfcStructuralAnalysisModel);
	4359	DECL_CONV_STUB(IfcConditionCriterion);
4251	4360
4252	4361
4253	4362	#undef DECL_CONV_STUB

+131

-2

code/IFCUtil.cpp less more

44	44	#include "AssimpPCH.h"
45	45
46	46	#ifndef ASSIMP_BUILD_NO_IFC_IMPORTER
	47
47	48	#include "IFCUtil.h"
	49	#include "PolyTools.h"
48	50	#include "ProcessHelper.h"
49	51
50	52	namespace Assimp {

55	57	{
56	58	if(profileMesh) {
57	59	profileMesh->Transform(mat);
	60	}
	61	if(profileMesh2D) {
	62	profileMesh2D->Transform(mat);
58	63	}
59	64	extrusionDir *= IfcMatrix3(mat);
60	65	}

124	129	{
125	130	verts.insert(verts.end(),other.verts.begin(),other.verts.end());
126	131	vertcnt.insert(vertcnt.end(),other.vertcnt.begin(),other.vertcnt.end());
	132	}
	133
	134	// ------------------------------------------------------------------------------------------------
	135	void TempMesh::RemoveDegenerates()
	136	{
	137	// The strategy is simple: walk the mesh and compute normals using
	138	// Newell's algorithm. The length of the normals gives the area
	139	// of the polygons, which is close to zero for lines.
	140
	141	std::vector<IfcVector3> normals;
	142	ComputePolygonNormals(normals, false);
	143
	144	bool drop = false;
	145	size_t inor = 0;
	146
	147	std::vector<IfcVector3>::iterator vit = verts.begin();
	148	for (std::vector<unsigned int>::iterator it = vertcnt.begin(); it != vertcnt.end(); ++inor) {
	149	const unsigned int pcount = *it;
	150
	151	if (normals[inor].SquareLength() < 1e-5f) {
	152	it = vertcnt.erase(it);
	153	vit = verts.erase(vit, vit + pcount);
	154
	155	drop = true;
	156	continue;
	157	}
	158
	159	vit += pcount;
	160	++it;
	161	}
	162
	163	if(drop) {
	164	IFCImporter::LogDebug("removing degenerate faces");
	165	}
	166	}
	167
	168	// ------------------------------------------------------------------------------------------------
	169	void TempMesh::ComputePolygonNormals(std::vector<IfcVector3>& normals,
	170	bool normalize,
	171	size_t ofs) const
	172	{
	173	size_t max_vcount = 0;
	174	std::vector<unsigned int>::const_iterator begin = vertcnt.begin()+ofs, end = vertcnt.end(), iit;
	175	for(iit = begin; iit != end; ++iit) {
	176	max_vcount = std::max(max_vcount,static_cast<size_t>(*iit));
	177	}
	178
	179	std::vector<IfcFloat> temp((max_vcount+2)*4);
	180	normals.reserve( normals.size() + vertcnt.size()-ofs );
	181
	182	// `NewellNormal()` currently has a relatively strange interface and need to
	183	// re-structure things a bit to meet them.
	184	size_t vidx = std::accumulate(vertcnt.begin(),begin,0);
	185	for(iit = begin; iit != end; vidx += *iit++) {
	186	if (!*iit) {
	187	normals.push_back(IfcVector3());
	188	continue;
	189	}
	190	for(size_t vofs = 0, cnt = 0; vofs < *iit; ++vofs) {
	191	const IfcVector3& v = verts[vidx+vofs];
	192	temp[cnt++] = v.x;
	193	temp[cnt++] = v.y;
	194	temp[cnt++] = v.z;
	195	#ifdef ASSIMP_BUILD_DEBUG
	196	temp[cnt] = std::numeric_limits<IfcFloat>::quiet_NaN();
	197	#endif
	198	++cnt;
	199	}
	200
	201	normals.push_back(IfcVector3());
	202	NewellNormal<4,4,4>(normals.back(),*iit,&temp[0],&temp[1],&temp[2]);
	203	}
	204
	205	if(normalize) {
	206	BOOST_FOREACH(IfcVector3& n, normals) {
	207	n.Normalize();
	208	}
	209	}
	210	}
	211
	212	// ------------------------------------------------------------------------------------------------
	213	// Compute the normal of the last polygon in the given mesh
	214	IfcVector3 TempMesh::ComputeLastPolygonNormal(bool normalize) const
	215	{
	216	size_t total = vertcnt.back(), vidx = verts.size() - total;
	217	std::vector<IfcFloat> temp((total+2)*3);
	218	for(size_t vofs = 0, cnt = 0; vofs < total; ++vofs) {
	219	const IfcVector3& v = verts[vidx+vofs];
	220	temp[cnt++] = v.x;
	221	temp[cnt++] = v.y;
	222	temp[cnt++] = v.z;
	223	}
	224	IfcVector3 nor;
	225	NewellNormal<3,3,3>(nor,total,&temp[0],&temp[1],&temp[2]);
	226	return normalize ? nor.Normalize() : nor;
	227	}
	228
	229	// ------------------------------------------------------------------------------------------------
	230	void TempMesh::FixupFaceOrientation()
	231	{
	232	const IfcVector3 vavg = Center();
	233
	234	std::vector<IfcVector3> normals;
	235	ComputePolygonNormals(normals);
	236
	237	size_t c = 0, ofs = 0;
	238	BOOST_FOREACH(unsigned int cnt, vertcnt) {
	239	if (cnt>2){
	240	const IfcVector3& thisvert = verts[c];
	241	if (normals[ofs]*(thisvert-vavg) < 0) {
	242	std::reverse(verts.begin()+c,verts.begin()+cnt+c);
	243	}
	244	}
	245	c += cnt;
	246	++ofs;
	247	}
127	248	}
128	249
129	250	// ------------------------------------------------------------------------------------------------

188	309	base += cnt;
189	310	}
190	311	if(drop) {
191		IFCImporter::LogDebug("removed duplicate vertices");
192		}
	312	IFCImporter::LogDebug("removing duplicate vertices");
	313	}
	314	}
	315
	316	// ------------------------------------------------------------------------------------------------
	317	void TempMesh::Swap(TempMesh& other)
	318	{
	319	vertcnt.swap(other.vertcnt);
	320	verts.swap(other.verts);
193	321	}
194	322
195	323	// ------------------------------------------------------------------------------------------------

441	569	out = locm * out * s;
442	570	}
443	571
	572
444	573	} // ! IFC
445	574	} // ! Assimp
446	575

+126

-26

code/IFCUtil.h less more

60	60	typedef aiColor4t<IfcFloat> IfcColor4;
61	61
62	62
63		// helper for std::for_each to delete all heap-allocated items in a container
	63	// ------------------------------------------------------------------------------------------------
	64	// Helper for std::for_each to delete all heap-allocated items in a container
	65	// ------------------------------------------------------------------------------------------------
64	66	template<typename T>
65	67	struct delete_fun
66	68	{

69	71	}
70	72	};
71	73
	74
	75
	76	// ------------------------------------------------------------------------------------------------
	77	// Helper used during mesh construction. Aids at creating aiMesh'es out of relatively few polygons.
	78	// ------------------------------------------------------------------------------------------------
	79	struct TempMesh
	80	{
	81	std::vector<IfcVector3> verts;
	82	std::vector<unsigned int> vertcnt;
	83
	84	// utilities
	85	aiMesh* ToMesh();
	86	void Clear();
	87	void Transform(const IfcMatrix4& mat);
	88	IfcVector3 Center() const;
	89	void Append(const TempMesh& other);
	90
	91	bool IsEmpty() const {
	92	return verts.empty() && vertcnt.empty();
	93	}
	94
	95	void RemoveAdjacentDuplicates();
	96	void RemoveDegenerates();
	97
	98	void FixupFaceOrientation();
	99	IfcVector3 ComputeLastPolygonNormal(bool normalize = true) const;
	100	void ComputePolygonNormals(std::vector<IfcVector3>& normals,
	101	bool normalize = true,
	102	size_t ofs = 0) const;
	103
	104	void Swap(TempMesh& other);
	105	};
	106
	107
72	108	// ------------------------------------------------------------------------------------------------
73	109	// Temporary representation of an opening in a wall or a floor
74	110	// ------------------------------------------------------------------------------------------------
75		struct TempMesh;
76	111	struct TempOpening
77	112	{
78		const IFC::IfcExtrudedAreaSolid* solid;
	113	const IFC::IfcSolidModel* solid;
79	114	IfcVector3 extrusionDir;
	115
80	116	boost::shared_ptr<TempMesh> profileMesh;
	117	boost::shared_ptr<TempMesh> profileMesh2D;
	118
	119	// list of points generated for this opening. This is used to
	120	// create connections between two opposing holes created
	121	// from a single opening instance (two because walls tend to
	122	// have two sides). If !empty(), the other side of the wall
	123	// has already been processed.
	124	std::vector<IfcVector3> wallPoints;
81	125
82	126	// ------------------------------------------------------------------------------
83		TempOpening(const IFC::IfcExtrudedAreaSolid* solid,IfcVector3 extrusionDir,boost::shared_ptr<TempMesh> profileMesh)
	127	TempOpening()
	128	: solid()
	129	, extrusionDir()
	130	, profileMesh()
	131	{
	132	}
	133
	134	// ------------------------------------------------------------------------------
	135	TempOpening(const IFC::IfcSolidModel* solid,IfcVector3 extrusionDir,
	136	boost::shared_ptr<TempMesh> profileMesh,
	137	boost::shared_ptr<TempMesh> profileMesh2D)
84	138	: solid(solid)
85	139	, extrusionDir(extrusionDir)
86	140	, profileMesh(profileMesh)
	141	, profileMesh2D(profileMesh2D)
87	142	{
88	143	}
89	144
90	145	// ------------------------------------------------------------------------------
91	146	void Transform(const IfcMatrix4& mat); // defined later since TempMesh is not complete yet
	147
	148
	149
	150	// ------------------------------------------------------------------------------
	151	// Helper to sort openings by distance from a given base point
	152	struct DistanceSorter {
	153
	154	DistanceSorter(const IfcVector3& base) : base(base) {}
	155
	156	bool operator () (const TempOpening& a, const TempOpening& b) const {
	157	return (a.profileMesh->Center()-base).SquareLength() < (b.profileMesh->Center()-base).SquareLength();
	158	}
	159
	160	IfcVector3 base;
	161	};
92	162	};
93	163
94	164

99	169	{
100	170	ConversionData(const STEP::DB& db, const IFC::IfcProject& proj, aiScene* out,const IFCImporter::Settings& settings)
101	171	: len_scale(1.0)
102		, angle_scale(1.0)
	172	, angle_scale(-1.0)
103	173	, db(db)
104	174	, proj(proj)
105	175	, out(out)

137	207	// for later processing by a parent, which is a wall.
138	208	std::vector<TempOpening>* apply_openings;
139	209	std::vector<TempOpening>* collect_openings;
140		};
	210
	211	std::set<uint64_t> already_processed;
	212	};
	213
141	214
142	215	// ------------------------------------------------------------------------------------------------
143	216	// Binary predicate to compare vectors with a given, quadratic epsilon.

154	227
155	228
156	229	// ------------------------------------------------------------------------------------------------
157		// Helper used during mesh construction. Aids at creating aiMesh'es out of relatively few polygons.
158		// ------------------------------------------------------------------------------------------------
159		struct TempMesh
160		{
161		std::vector<IfcVector3> verts;
162		std::vector<unsigned int> vertcnt;
163
164		// utilities
165		aiMesh* ToMesh();
166		void Clear();
167		void Transform(const IfcMatrix4& mat);
168		IfcVector3 Center() const;
169		void Append(const TempMesh& other);
170		void RemoveAdjacentDuplicates();
171		};
172
173
	230	// Ordering predicate to totally order R^2 vectors first by x and then by y
	231	// ------------------------------------------------------------------------------------------------
	232	struct XYSorter {
	233
	234	// sort first by X coordinates, then by Y coordinates
	235	bool operator () (const IfcVector2&a, const IfcVector2& b) const {
	236	if (a.x == b.x) {
	237	return a.y < b.y;
	238	}
	239	return a.x < b.x;
	240	}
	241	};
174	242
175	243
176	244

197	265	unsigned int ProcessMaterials(const IFC::IfcRepresentationItem& item, ConversionData& conv);
198	266
199	267	// IFCGeometry.cpp
	268	IfcMatrix3 DerivePlaneCoordinateSpace(const TempMesh& curmesh, bool& ok, IfcVector3& norOut);
200	269	bool ProcessRepresentationItem(const IfcRepresentationItem& item, std::vector<unsigned int>& mesh_indices, ConversionData& conv);
201	270	void AssignAddedMeshes(std::vector<unsigned int>& mesh_indices,aiNode* nd,ConversionData& /conv/);
	271
	272	void ProcessSweptAreaSolid(const IfcSweptAreaSolid& swept, TempMesh& meshout,
	273	ConversionData& conv);
	274
	275	void ProcessExtrudedAreaSolid(const IfcExtrudedAreaSolid& solid, TempMesh& result,
	276	ConversionData& conv, bool collect_openings);
	277
	278	// IFCBoolean.cpp
	279
	280	void ProcessBoolean(const IfcBooleanResult& boolean, TempMesh& result, ConversionData& conv);
	281	void ProcessBooleanHalfSpaceDifference(const IfcHalfSpaceSolid* hs, TempMesh& result,
	282	const TempMesh& first_operand,
	283	ConversionData& conv);
	284
	285	void ProcessPolygonalBoundedBooleanHalfSpaceDifference(const IfcPolygonalBoundedHalfSpace* hs, TempMesh& result,
	286	const TempMesh& first_operand,
	287	ConversionData& conv);
	288	void ProcessBooleanExtrudedAreaSolidDifference(const IfcExtrudedAreaSolid* as, TempMesh& result,
	289	const TempMesh& first_operand,
	290	ConversionData& conv);
	291
	292
	293	// IFCOpenings.cpp
	294
	295	bool GenerateOpenings(std::vector<TempOpening>& openings,
	296	const std::vector<IfcVector3>& nors,
	297	TempMesh& curmesh,
	298	bool check_intersection,
	299	bool generate_connection_geometry,
	300	const IfcVector3& wall_extrusion_axis = IfcVector3(0,1,0));
	301
202	302
203	303
204	304	// IFCCurve.cpp

264	364	// and append the result to the mesh
265	365	virtual void SampleDiscrete(TempMesh& out,IfcFloat start,IfcFloat end) const;
266	366
267		#ifdef _DEBUG
	367	#ifdef ASSIMP_BUILD_DEBUG
268	368	// check if a particular parameter value lies within the well-defined range
269	369	bool InRange(IfcFloat) const;
270	370	#endif

303	403	using Curve::SampleDiscrete;
304	404	};
305	405
306
307
	406	// IfcProfile.cpp
	407	bool ProcessCurve(const IfcCurve& curve, TempMesh& meshout, ConversionData& conv);
308	408	}
309	409	}
310	410

-0

code/IRRLoader.cpp less more

43	43	*/
44	44
45	45	#include "AssimpPCH.h"
	46
	47	#ifndef ASSIMP_BUILD_NO_IRR_IMPORTER
46	48
47	49	#include "IRRLoader.h"
48	50	#include "ParsingUtils.h"

1470	1472	*/
1471	1473	return;
1472	1474	}
	1475
	1476	#endif // !! ASSIMP_BUILD_NO_IRR_IMPORTER

-0

code/IRRMeshLoader.cpp less more

42	42
43	43	#include "AssimpPCH.h"
44	44
	45	#ifndef ASSIMP_BUILD_NO_IRRMESH_IMPORTER
	46
45	47	#include "IRRMeshLoader.h"
46	48	#include "ParsingUtils.h"
47	49	#include "fast_atof.h"

508	510	delete reader;
509	511	AI_DEBUG_INVALIDATE_PTR(reader);
510	512	}
	513
	514	#endif // !! ASSIMP_BUILD_NO_IRRMESH_IMPORTER

-0

code/IRRShared.cpp less more

43	43	*/
44	44
45	45	#include "AssimpPCH.h"
	46
	47	//This section should be excluded only if both the Irrlicht AND the Irrlicht Mesh importers were omitted.
	48	#if !(defined(ASSIMP_BUILD_NO_IRR_IMPORTER) && defined(ASSIMP_BUILD_NO_IRRMESH_IMPORTER))
46	49
47	50	#include "IRRShared.h"
48	51	#include "ParsingUtils.h"

493	496	DefaultLogger::get()->error("IRRMESH: Unexpected end of file. Material is not complete");
494	497	return mat;
495	498	}
	499
	500	#endif // !(defined(ASSIMP_BUILD_NO_IRR_IMPORTER) && defined(ASSIMP_BUILD_NO_IRRMESH_IMPORTER))

+27

-8

code/Importer.cpp less more

196	196	pimpl->mIntProperties = other.pimpl->mIntProperties;
197	197	pimpl->mFloatProperties = other.pimpl->mFloatProperties;
198	198	pimpl->mStringProperties = other.pimpl->mStringProperties;
	199	pimpl->mMatrixProperties = other.pimpl->mMatrixProperties;
199	200	}
200	201
201	202	// ------------------------------------------------------------------------------------------------

231	232
232	233	for(std::set<std::string>::const_iterator it = st.begin(); it != st.end(); ++it) {
233	234
234		#ifdef _DEBUG
	235	#ifdef ASSIMP_BUILD_DEBUG
235	236	if (IsExtensionSupported(*it)) {
236	237	DefaultLogger::get()->warn("The file extension " + *it + " is already in use");
237	238	}

557	558	<< "<unknown compiler>"
558	559	#endif
559	560
560		#ifndef NDEBUG
	561	#ifdef ASSIMP_BUILD_DEBUG
561	562	<< " debug"
562	563	#endif
563	564

748	749	}
749	750	}
750	751	#endif // no validation
751		#ifdef _DEBUG
	752	#ifdef ASSIMP_BUILD_DEBUG
752	753	if (pimpl->bExtraVerbose)
753	754	{
754		#ifndef ASSIMP_BUILD_NO_VALIDATEDS_PROCESS
	755	#ifdef ASSIMP_BUILD_NO_VALIDATEDS_PROCESS
755	756	DefaultLogger::get()->error("Verbose Import is not available due to build settings");
756	757	#endif // no validation
757	758	pFlags \|= aiProcess_ValidateDataStructure;

782	783	if( !pimpl->mScene) {
783	784	break;
784	785	}
785		#ifdef _DEBUG
786
787		#ifndef ASSIMP_BUILD_NO_VALIDATEDS_PROCESS
	786	#ifdef ASSIMP_BUILD_DEBUG
	787
	788	#ifdef ASSIMP_BUILD_NO_VALIDATEDS_PROCESS
788	789	continue;
789	790	#endif // no validation
790	791

937	938	}
938	939
939	940	// ------------------------------------------------------------------------------------------------
	941	// Set a configuration property
	942	void Importer::SetPropertyMatrix(const char* szName, const aiMatrix4x4& value,
	943	bool* bWasExisting /= NULL/)
	944	{
	945	ASSIMP_BEGIN_EXCEPTION_REGION();
	946	SetGenericProperty<aiMatrix4x4>(pimpl->mMatrixProperties, szName,value,bWasExisting);
	947	ASSIMP_END_EXCEPTION_REGION(void);
	948	}
	949
	950	// ------------------------------------------------------------------------------------------------
940	951	// Get a configuration property
941	952	int Importer::GetPropertyInteger(const char* szName,
942	953	int iErrorReturn /= 0xffffffff/) const

954	965
955	966	// ------------------------------------------------------------------------------------------------
956	967	// Get a configuration property
957		const std::string& Importer::GetPropertyString(const char* szName,
	968	const std::string Importer::GetPropertyString(const char* szName,
958	969	const std::string& iErrorReturn /= ""/) const
959	970	{
960	971	return GetGenericProperty<std::string>(pimpl->mStringProperties,szName,iErrorReturn);
	972	}
	973
	974	// ------------------------------------------------------------------------------------------------
	975	// Get a configuration property
	976	const aiMatrix4x4 Importer::GetPropertyMatrix(const char* szName,
	977	const aiMatrix4x4& iErrorReturn /= aiMatrix4x4()/) const
	978	{
	979	return GetGenericProperty<aiMatrix4x4>(pimpl->mMatrixProperties,szName,iErrorReturn);
961	980	}
962	981
963	982	// ------------------------------------------------------------------------------------------------

-3

code/Importer.h less more

62	62	// Data type to store the key hash
63	63	typedef unsigned int KeyType;
64	64
65		// typedefs for our three configuration maps.
	65	// typedefs for our four configuration maps.
66	66	// We don't need more, so there is no need for a generic solution
67	67	typedef std::map<KeyType, int> IntPropertyMap;
68	68	typedef std::map<KeyType, float> FloatPropertyMap;
69	69	typedef std::map<KeyType, std::string> StringPropertyMap;
	70	typedef std::map<KeyType, aiMatrix4x4> MatrixPropertyMap;
70	71
71	72	public:
72	73

98	99
99	100	/** List of string properties */
100	101	StringPropertyMap mStringProperties;
	102
	103	/** List of Matrix properties */
	104	MatrixPropertyMap mMatrixProperties;
101	105
102	106	/** Used for testing - extra verbose mode causes the ValidateDataStructure-Step
103	107	* to be executed before and after every single postprocess step */

134	138	ImporterPimpl::IntPropertyMap ints;
135	139	ImporterPimpl::FloatPropertyMap floats;
136	140	ImporterPimpl::StringPropertyMap strings;
	141	ImporterPimpl::MatrixPropertyMap matrices;
137	142
138	143	bool operator == (const PropertyMap& prop) const {
139	144	// fixme: really isocpp? gcc complains
140		return ints == prop.ints && floats == prop.floats && strings == prop.strings;
	145	return ints == prop.ints && floats == prop.floats && strings == prop.strings && matrices == prop.matrices;
141	146	}
142	147
143	148	bool empty () const {
144		return ints.empty() && floats.empty() && strings.empty();
	149	return ints.empty() && floats.empty() && strings.empty() && matrices.empty();
145	150	}
146	151	};
147	152	//! @endcond

-7

code/ImporterRegistry.cpp less more

139	139	# include "LWSLoader.h"
140	140	#endif
141	141	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
142		# include "OgreImporter.hpp"
	142	# include "OgreImporter.h"
143	143	#endif
144	144	#ifndef ASSIMP_BUILD_NO_MS3D_IMPORTER
145	145	# include "MS3DLoader.h"

159	159	#ifndef ASSIMP_BUILD_NO_IFC_IMPORTER
160	160	# include "IFCLoader.h"
161	161	#endif
162		#ifndef ASSIMP_BUILD_NO_M3_IMPORTER
163		# include "M3Importer.h"
164		#endif
165	162	#ifndef ASSIMP_BUILD_NO_XGL_IMPORTER
166	163	# include "XGLLoader.h"
	164	#endif
	165	#ifndef ASSIMP_BUILD_NO_FBX_IMPORTER
	166	# include "FBXImporter.h"
167	167	#endif
168	168
169	169	namespace Assimp {

284	284	#if (!defined ASSIMP_BUILD_NO_IFC_IMPORTER)
285	285	out.push_back( new IFCImporter() );
286	286	#endif
287		#if ( !defined ASSIMP_BUILD_NO_M3_IMPORTER )
288		out.push_back( new M3::M3Importer() );
289		#endif
290	287	#if ( !defined ASSIMP_BUILD_NO_XGL_IMPORTER )
291	288	out.push_back( new XGLImporter() );
292	289	#endif
	290	#if ( !defined ASSIMP_BUILD_NO_FBX_IMPORTER )
	291	out.push_back( new FBXImporter() );
	292	#endif
293	293	}
294	294
295	295	}

-2

code/LWOAnimation.cpp less more

47	47
48	48	#include "AssimpPCH.h"
49	49	#if (!defined ASSIMP_BUILD_NO_LWO_IMPORTER) && (!defined ASSIMP_BUILD_NO_LWS_IMPORTER)
	50
	51	#include <functional>
50	52
51	53	// internal headers
52	54	#include "LWOFileData.h"

445	447
446	448	if ((cur_x).time == (cur_y).time && (cur_x).time == (cur_z).time ) {
447	449
448		// we have a keyframe for all of them defined .. great,
449		// we don't need to fucking interpolate here ...
	450	// we have a keyframe for all of them defined .. this means
	451	// we don't need to interpolate here.
450	452	fill.mTime = (*cur_x).time;
451	453
452	454	fill.mValue.x = (*cur_x).value;

+10

-1

code/LWOLoader.cpp less more

293	293	unsigned int vUVChannelIndices[AI_MAX_NUMBER_OF_TEXTURECOORDS];
294	294	unsigned int vVColorIndices[AI_MAX_NUMBER_OF_COLOR_SETS];
295	295
296		#if _DEBUG
	296	#ifdef ASSIMP_BUILD_DEBUG
297	297	for (unsigned int mui = 0; mui < AI_MAX_NUMBER_OF_TEXTURECOORDS;++mui ) {
298	298	vUVChannelIndices[mui] = UINT_MAX;
299	299	}

465	465	aiFace* begin = mesh->mFaces, *const end = mesh->mFaces+mesh->mNumFaces;
466	466	for (; begin != end; ++begin) {
467	467	aiFace& face = *begin;
	468
	469	if(face.mNumIndices < 3) {
	470	continue;
	471	}
468	472
469	473	// LWO doc: "the normal is defined as the cross product of the first and last edges"
470	474	aiVector3D* pV1 = mesh->mVertices + face.mIndices[0];

1291	1295	uint8_t* const next = mFileBuffer+head->length;
1292	1296	unsigned int iUnnamed = 0;
1293	1297
	1298	if(!head->length) {
	1299	mFileBuffer = next;
	1300	continue;
	1301	}
	1302
1294	1303	switch (head->type)
1295	1304	{
1296	1305	// new layer

+13

-11

code/LWOMaterial.cpp less more

166	166	// The older LWOB format does not use indirect references to clips.
167	167	// The file name of a texture is directly specified in the tex chunk.
168	168	if (mIsLWO2) {
169		// find the corresponding clip
170		ClipList::iterator clip = mClips.begin();
	169	// find the corresponding clip (take the last one if multiple
	170	// share the same index)
	171	ClipList::iterator end = mClips.end(), candidate = end;
171	172	temp = (*it).mClipIdx;
172		for (ClipList::iterator end = mClips.end(); clip != end; ++clip) {
173		if ((*clip).idx == temp)
174		break;
	173	for (ClipList::iterator clip = mClips.begin(); clip != end; ++clip) {
	174	if ((*clip).idx == temp) {
	175	candidate = clip;
	176	}
175	177
176	178	}
177		if (mClips.end() == clip) {
	179	if (candidate == end) {
178	180	DefaultLogger::get()->error("LWO2: Clip index is out of bounds");
179	181	temp = 0;
180	182
181		// fixme: appearently some LWO files shipping with Doom3 don't
	183	// fixme: apparently some LWO files shipping with Doom3 don't
182	184	// have clips at all ... check whether that's true or whether
183	185	// it's a bug in the loader.
184	186

187	189	//continue;
188	190	}
189	191	else {
190		if (Clip::UNSUPPORTED == (*clip).type) {
	192	if (Clip::UNSUPPORTED == (*candidate).type) {
191	193	DefaultLogger::get()->error("LWO2: Clip type is not supported");
192	194	continue;
193	195	}
194		AdjustTexturePath((*clip).path);
195		s.Set((*clip).path);
	196	AdjustTexturePath((*candidate).path);
	197	s.Set((*candidate).path);
196	198
197	199	// Additional image settings
198	200	int flags = 0;
199		if ((*clip).negate) {
	201	if ((*candidate).negate) {
200	202	flags \|= aiTextureFlags_Invert;
201	203	}
202	204	pcMat->AddProperty(&flags,1,AI_MATKEY_TEXFLAGS(type,cur));

+13

-6

code/LWSLoader.cpp less more

43	43	*/
44	44
45	45	#include "AssimpPCH.h"
	46	#ifndef ASSIMP_BUILD_NO_LWS_IMPORTER
46	47
47	48	#include "LWSLoader.h"
48	49	#include "ParsingUtils.h"

122	123	// ------------------------------------------------------------------------------------------------
123	124	// Constructor to be privately used by Importer
124	125	LWSImporter::LWSImporter()
	126	: noSkeletonMesh()
125	127	{
126	128	// nothing to do here
127	129	}

176	178	if (last < first) {
177	179	std::swap(last,first);
178	180	}
	181
	182	noSkeletonMesh = pImp->GetPropertyInteger(AI_CONFIG_IMPORT_NO_SKELETON_MESHES,0) != 0;
179	183	}
180	184
181	185	// ------------------------------------------------------------------------------------------------

459	463	std::string tmp;
460	464	if (in.length() > 3 && in[1] == ':'&& in[2] != '\\' && in[2] != '/')
461	465	{
462		tmp = in[0] + ":\\" + in.substr(2);
	466	tmp = in[0] + (":\\" + in.substr(2));
463	467	}
464	468	else tmp = in;
465	469

475	479	// <folder>\Scenes\<hh>\<*>.lws
476	480	// where <hh> is optional.
477	481
478		std::string test = ".." + io->getOsSeparator() + tmp;
479		if (io->Exists(test))
	482	std::string test = ".." + (io->getOsSeparator() + tmp);
	483	if (io->Exists(test)) {
480	484	return test;
481
482		test = ".." + io->getOsSeparator() + test;
	485	}
	486
	487	test = ".." + (io->getOsSeparator() + test);
483	488	if (io->Exists(test)) {
484	489	return test;
485	490	}

907	912	if (!pScene->mNumMeshes \|\| !pScene->mNumMaterials) {
908	913	pScene->mFlags \|= AI_SCENE_FLAGS_INCOMPLETE;
909	914
910		if (pScene->mNumAnimations) {
	915	if (pScene->mNumAnimations && !noSkeletonMesh) {
911	916	// construct skeleton mesh
912	917	SkeletonMeshBuilder builder(pScene);
913	918	}
914	919	}
915	920
916	921	}
	922
	923	#endif // !! ASSIMP_BUILD_NO_LWS_IMPORTER

-0

code/LWSLoader.h less more

232	232	IOSystem* io;
233	233
234	234	double first,last,fps;
	235
	236	bool noSkeletonMesh;
235	237	};
236	238
237	239	} // end of namespace Assimp

-1

code/LimitBoneWeightsProcess.h less more

44	44	#include "BaseProcess.h"
45	45
46	46	struct aiMesh;
	47
47	48	class LimitBoneWeightsTest;
48	49
49	50	namespace Assimp

68	69	* The other weights on this bone are then renormalized to assure the sum weight
69	70	* to be 1.
70	71	*/
71		class LimitBoneWeightsProcess : public BaseProcess
	72	class ASSIMP_API LimitBoneWeightsProcess : public BaseProcess
72	73	{
73	74	public:
74	75

+236

-240

code/LineSplitter.h less more

0		/*
1		Open Asset Import Library (assimp)
2		----------------------------------------------------------------------
	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file LineSplitter.h
	41	* @brief LineSplitter, a helper class to iterate through all lines
	42	* of a file easily. Works with StreamReader.
	43	*/
	44	#ifndef INCLUDED_LINE_SPLITTER_H
	45	#define INCLUDED_LINE_SPLITTER_H
	46
	47	#include <stdexcept>
	48
	49	#include "StreamReader.h"
	50	#include "ParsingUtils.h"
	51
	52	namespace Assimp {
	53
	54	// ------------------------------------------------------------------------------------------------
	55	/** Usage:
	56	@code
	57	for(LineSplitter splitter(stream);splitter;++splitter) {
	58
	59	if (*splitter == "hi!") {
	60	...
	61	}
	62	else if (splitter->substr(0,5) == "hello") {
	63	...
	64	// access the third token in the line (tokens are space-separated)
	65	if (strtol(splitter[2]) > 5) { .. }
	66	}
	67
	68	std::cout << "Current line is: " << splitter.get_index() << std::endl;
	69	}
	70	@endcode */
	71	// ------------------------------------------------------------------------------------------------
	72	class LineSplitter
	73	{
	74	public:
	75
	76	typedef size_t line_idx;
	77
	78	public:
	79
	80	// -----------------------------------------
	81	/** construct from existing stream reader
	82	note: trim is always assumed true if skyp_empty_lines==true
	83	*/
	84	LineSplitter(StreamReaderLE& stream, bool skip_empty_lines = true, bool trim = true)
	85	: stream(stream)
	86	, swallow()
	87	, skip_empty_lines(skip_empty_lines)
	88	, trim(trim)
	89	{
	90	cur.reserve(1024);
	91	operator++();
	92
	93	idx = 0;
	94	}
	95
	96	public:
	97
	98	// -----------------------------------------
	99	/** pseudo-iterator increment */
	100	LineSplitter& operator++() {
	101	if(swallow) {
	102	swallow = false;
	103	return *this;
	104	}
	105	if (!*this) {
	106	throw std::logic_error("End of file, no more lines to be retrieved.");
	107	}
	108	char s;
	109	cur.clear();
	110	while(stream.GetRemainingSize() && (s = stream.GetI1(),1)) {
	111	if (s == '\n' \|\| s == '\r') {
	112	if (skip_empty_lines) {
	113	while (stream.GetRemainingSize() && ((s = stream.GetI1()) == ' ' \|\| s == '\r' \|\| s == '\n'));
	114	if (stream.GetRemainingSize()) {
	115	stream.IncPtr(-1);
	116	}
	117	}
	118	else {
	119	// skip both potential line terminators but don't read past this line.
	120	if (stream.GetRemainingSize() && (s == '\r' && stream.GetI1() != '\n')) {
	121	stream.IncPtr(-1);
	122	}
	123	if (trim) {
	124	while (stream.GetRemainingSize() && ((s = stream.GetI1()) == ' ' \|\| s == '\t'));
	125	if (stream.GetRemainingSize()) {
	126	stream.IncPtr(-1);
	127	}
	128	}
	129	}
	130	break;
	131	}
	132	cur += s;
	133	}
	134	++idx;
	135	return *this;
	136	}
	137
	138	// -----------------------------------------
	139	LineSplitter& operator++(int) {
	140	return ++(*this);
	141	}
	142
	143	// -----------------------------------------
	144	/** get a pointer to the beginning of a particular token */
	145	const char* operator[] (size_t idx) const {
	146	const char* s = operator->()->c_str();
3	147
4		Copyright (c) 2006-2012, assimp team
5		All rights reserved.
	148	SkipSpaces(&s);
	149	for(size_t i = 0; i < idx; ++i) {
6	150
7		Redistribution and use of this software in source and binary forms,
8		with or without modification, are permitted provided that the
9		following conditions are met:
10
11		* Redistributions of source code must retain the above
12		copyright notice, this list of conditions and the
13		following disclaimer.
14
15		* Redistributions in binary form must reproduce the above
16		copyright notice, this list of conditions and the
17		following disclaimer in the documentation and/or other
18		materials provided with the distribution.
19
20		* Neither the name of the assimp team, nor the names of its
21		contributors may be used to endorse or promote products
22		derived from this software without specific prior
23		written permission of the assimp team.
24
25		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
26		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
27		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
28		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
29		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
30		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
31		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
32		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
33		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
34		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
35		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
36
37		----------------------------------------------------------------------
38		*/
39
40		/** @file LineSplitter.h
41		* @brief LineSplitter, a helper class to iterate through all lines
42		* of a file easily. Works with StreamReader.
43		*/
44		#ifndef INCLUDED_LINE_SPLITTER_H
45		#define INCLUDED_LINE_SPLITTER_H
46
47		#include <stdexcept>
48
49		#include "StreamReader.h"
50		#include "ParsingUtils.h"
51
52		namespace Assimp {
53
54		// ------------------------------------------------------------------------------------------------
55		/** Usage:
56		@code
57		for(LineSplitter splitter(stream);splitter;++splitter) {
58
59		if (*splitter == "hi!") {
60		...
61		}
62		else if (splitter->substr(0,5) == "hello") {
63		...
64		// access the third token in the line (tokens are space-separated)
65		if (strtol(splitter[2]) > 5) { .. }
66		}
67
68		std::cout << "Current line is: " << splitter.get_index() << std::endl;
69		}
70		@endcode */
71		// ------------------------------------------------------------------------------------------------
72		class LineSplitter
73		{
74		public:
75
76		typedef size_t line_idx;
77
78		public:
79
80		// -----------------------------------------
81		/** construct from existing stream reader
82		note: trim is always assumed true if skyp_empty_lines==true
83		*/
84		LineSplitter(StreamReaderLE& stream, bool skip_empty_lines = true, bool trim = true)
85		: stream(stream)
86		, swallow()
87		, skip_empty_lines(skip_empty_lines)
88		, trim(trim)
89		{
90		cur.reserve(1024);
91		operator++();
92
93		idx = 0;
94		}
95
96		public:
97
98		// -----------------------------------------
99		/** pseudo-iterator increment */
100		LineSplitter& operator++() {
101		if(swallow) {
102		swallow = false;
103		return *this;
104		}
105
106		if (!*this) {
107		throw std::logic_error("End of file, no more lines to be retrieved.");
108		}
109
110		char s;
111
112		cur.clear();
113		while(stream.GetRemainingSize() && (s = stream.GetI1(),1)) {
114		if (s == '\n' \|\| s == '\r') {
115		if (skip_empty_lines) {
116		while (stream.GetRemainingSize() && ((s = stream.GetI1()) == ' ' \|\| s == '\r' \|\| s == '\n'));
117		if (stream.GetRemainingSize()) {
118		stream.IncPtr(-1);
119		}
120		}
121		else {
122		// skip both potential line terminators but don't read past this line.
123		if (stream.GetRemainingSize() && (s == '\r' && stream.GetI1() != '\n')) {
124		stream.IncPtr(-1);
125		}
126
127		if (trim) {
128		while (stream.GetRemainingSize() && ((s = stream.GetI1()) == ' ' \|\| s == '\t'));
129		if (stream.GetRemainingSize()) {
130		stream.IncPtr(-1);
131		}
132		}
133		}
134
135		break;
136		}
137		cur += s;
138		}
139
140		++idx;
141		return *this;
142		}
143
144		// -----------------------------------------
145		LineSplitter& operator++(int) {
146		return ++(*this);
147		}
148
149		// -----------------------------------------
150		/** get a pointer to the beginning of a particular token */
151		const char* operator[] (size_t idx) const {
152		const char* s = operator->()->c_str();
153
154		SkipSpaces(&s);
155		for(size_t i = 0; i < idx; ++i) {
156
157		for(;!IsSpace(*s); ++s) {
158		if(IsLineEnd(*s)) {
159		throw std::range_error("Token index out of range, EOL reached");
160		}
161		}
162		SkipSpaces(&s);
163		}
164		return s;
165		}
166
167		// -----------------------------------------
168		/** extract the start positions of N tokens from the current line*/
169		template <size_t N>
170		void get_tokens(const char* (&tokens)[N]) const {
171		const char* s = operator->()->c_str();
172
173		SkipSpaces(&s);
174		for(size_t i = 0; i < N; ++i) {
175		if(IsLineEnd(*s)) {
176		throw std::range_error("Token count out of range, EOL reached");
177		}
178		tokens[i] = s;
179
180		for(;s && !IsSpace(s); ++s);
181		SkipSpaces(&s);
182		}
183		}
184
185		// -----------------------------------------
186		/** member access */
187		const std::string* operator -> () const {
188		return &cur;
189		}
190
191		std::string operator* () const {
192		return cur;
193		}
194
195		// -----------------------------------------
196		/** boolean context */
197		operator bool() const {
198		return stream.GetRemainingSize()>0;
199		}
200
201		// -----------------------------------------
202		/** line indices are zero-based, empty lines are included */
203		operator line_idx() const {
204		return idx;
205		}
206
207		line_idx get_index() const {
208		return idx;
209		}
210
211		// -----------------------------------------
212		/** access the underlying stream object */
213		StreamReaderLE& get_stream() {
214		return stream;
215		}
216
217		// -----------------------------------------
218		/** !strcmp((this)->substr(0,strlen(check)),check) /
219		bool match_start(const char* check) {
220		const size_t len = strlen(check);
221
222		return len <= cur.length() && std::equal(check,check+len,cur.begin());
223		}
224
225
226		// -----------------------------------------
227		/** swallow the next call to ++, return the previous value. */
228		void swallow_next_increment() {
229		swallow = true;
230		}
231
232		private:
233
234		line_idx idx;
235		std::string cur;
236		StreamReaderLE& stream;
237		bool swallow, skip_empty_lines, trim;
238		};
239
240		}
241		#endif // INCLUDED_LINE_SPLITTER_H
	151	for(;!IsSpace(*s); ++s) {
	152	if(IsLineEnd(*s)) {
	153	throw std::range_error("Token index out of range, EOL reached");
	154	}
	155	}
	156	SkipSpaces(&s);
	157	}
	158	return s;
	159	}
	160
	161	// -----------------------------------------
	162	/** extract the start positions of N tokens from the current line*/
	163	template <size_t N>
	164	void get_tokens(const char* (&tokens)[N]) const {
	165	const char* s = operator->()->c_str();
	166
	167	SkipSpaces(&s);
	168	for(size_t i = 0; i < N; ++i) {
	169	if(IsLineEnd(*s)) {
	170
	171	throw std::range_error("Token count out of range, EOL reached");
	172
	173	}
	174	tokens[i] = s;
	175
	176	for(;s && !IsSpace(s); ++s);
	177	SkipSpaces(&s);
	178	}
	179	}
	180
	181	// -----------------------------------------
	182	/** member access */
	183	const std::string* operator -> () const {
	184	return &cur;
	185	}
	186
	187	std::string operator* () const {
	188	return cur;
	189	}
	190
	191	// -----------------------------------------
	192	/** boolean context */
	193	operator bool() const {
	194	return stream.GetRemainingSize()>0;
	195	}
	196
	197	// -----------------------------------------
	198	/** line indices are zero-based, empty lines are included */
	199	operator line_idx() const {
	200	return idx;
	201	}
	202
	203	line_idx get_index() const {
	204	return idx;
	205	}
	206
	207	// -----------------------------------------
	208	/** access the underlying stream object */
	209	StreamReaderLE& get_stream() {
	210	return stream;
	211	}
	212
	213	// -----------------------------------------
	214	/** !strcmp((this)->substr(0,strlen(check)),check) /
	215	bool match_start(const char* check) {
	216	const size_t len = strlen(check);
	217
	218	return len <= cur.length() && std::equal(check,check+len,cur.begin());
	219	}
	220
	221
	222	// -----------------------------------------
	223	/** swallow the next call to ++, return the previous value. */
	224	void swallow_next_increment() {
	225	swallow = true;
	226	}
	227
	228	private:
	229
	230	line_idx idx;
	231	std::string cur;
	232	StreamReaderLE& stream;
	233	bool swallow, skip_empty_lines, trim;
	234	};
	235
	236	}
	237	#endif // INCLUDED_LINE_SPLITTER_H

-1

code/LogAux.h less more

88	88	}
89	89
90	90	// https://sourceforge.net/tracker/?func=detail&atid=1067632&aid=3358562&group_id=226462
91		#if !defined(__GNUC__) \|\| !defined(__APPLE__) \|\| __GNUC__ > 4 \|\| (__GNUC__ == 4 && __GNUC_MINOR__ >= 3)
	91	#if !defined(__GNUC__) \|\| !defined(__APPLE__) \|\| __GNUC__ > 4 \|\| (__GNUC__ == 4 && __GNUC_MINOR__ >= 6)
92	92
93	93	// ------------------------------------------------------------------------------------------------
94	94	static void LogWarn (const char* message) {

-371

~~code/M3Importer.cpp~~ less more

0		/*
1		Open Asset Import Library (assimp)
2		----------------------------------------------------------------------
3
4		Copyright (c) 2006-2012, assimp team
5		All rights reserved.
6
7		Redistribution and use of this software in source and binary forms,
8		with or without modification, are permitted provided that the
9		following conditions are met:
10
11		* Redistributions of source code must retain the above
12		copyright notice, this list of conditions and the
13		following disclaimer.
14
15		* Redistributions in binary form must reproduce the above
16		copyright notice, this list of conditions and the
17		following disclaimer in the documentation and/or other
18		materials provided with the distribution.
19
20		* Neither the name of the assimp team, nor the names of its
21		contributors may be used to endorse or promote products
22		derived from this software without specific prior
23		written permission of the assimp team.
24
25		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
26		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
27		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
28		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
29		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
30		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
31		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
32		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
33		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
34		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
35		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
36
37		----------------------------------------------------------------------
38		*/
39
40		#include "AssimpPCH.h"
41		#ifndef ASSIMP_BUILD_NO_M3_IMPORTER
42
43		#include "M3Importer.h"
44		#include <sstream>
45
46		namespace Assimp {
47		namespace M3 {
48
49		static const aiImporterDesc desc = {
50		"StarCraft M3 Importer",
51		"",
52		"",
53		"",
54		aiImporterFlags_SupportBinaryFlavour,
55		0,
56		0,
57		0,
58		0,
59		"m3"
60		};
61
62		// ------------------------------------------------------------------------------------------------
63		// Constructor.
64		M3Importer::M3Importer() :
65		m_pHead( NULL ),
66		m_pRefs( NULL ),
67		m_Buffer()
68		{
69		// empty
70		}
71
72		// ------------------------------------------------------------------------------------------------
73		// Destructor.
74		M3Importer::~M3Importer()
75		{
76		m_pHead = NULL;
77		m_pRefs = NULL;
78		}
79
80		// ------------------------------------------------------------------------------------------------
81		// Check for readable file format.
82		bool M3Importer::CanRead( const std::string &rFile, IOSystem* /pIOHandler/, bool checkSig ) const
83		{
84		if ( !checkSig ) {
85		return SimpleExtensionCheck( rFile, "m3" );
86		}
87
88		return false;
89		}
90
91		// ------------------------------------------------------------------------------------------------
92		const aiImporterDesc* M3Importer::GetInfo () const
93		{
94		return &desc;
95		}
96
97		// ------------------------------------------------------------------------------------------------
98		void M3Importer::InternReadFile( const std::string& pFile, aiScene* pScene, IOSystem* pIOHandler )
99		{
100		ai_assert( !pFile.empty() );
101
102		const std::string mode = "rb";
103		boost::scoped_ptr<IOStream> file( pIOHandler->Open( pFile, mode ) );
104		if ( NULL == file.get() ) {
105		throw DeadlyImportError( "Failed to open file " + pFile + ".");
106		}
107
108		// Get the file-size and validate it, throwing an exception when it fails
109		const size_t filesize = file->FileSize();
110		if( filesize < 1 ) {
111		throw DeadlyImportError( "M3-file is too small.");
112		}
113
114		m_Buffer.resize( filesize );
115		size_t readsize = file->Read( &m_Buffer[ 0 ], sizeof( unsigned char ), filesize );
116		ai_assert( readsize == filesize );
117
118		m_pHead = reinterpret_cast<MD33*>( &m_Buffer[ 0 ] );
119		m_pRefs = reinterpret_cast<ReferenceEntry*>( &m_Buffer[ 0 ] + m_pHead->ofsRefs );
120
121		MODL20* pMODL20( NULL );
122		MODL23* pMODL23( NULL );
123
124		VertexExt* pVerts1( NULL );
125		Vertex* pVerts2( NULL );
126
127		DIV *pViews( NULL );
128		Region* regions( NULL );
129		uint16* faces( NULL );
130
131		uint32 nVertices = 0;
132
133		bool ok = true;
134		switch( m_pRefs[ m_pHead->MODL.ref ].type ) {
135		case 20:
136		pMODL20 = GetEntries<MODL20>( m_pHead->MODL );
137		if ( ( pMODL20->flags & 0x20000) != 0 ) { // Has vertices
138		if( (pMODL20->flags & 0x40000) != 0 ) { // Has extra 4 byte
139		pVerts1 = GetEntries<VertexExt>( pMODL20->vertexData );
140		nVertices = pMODL20->vertexData.nEntries/sizeof(VertexExt);
141		}
142		else {
143		pVerts2 = GetEntries<Vertex>( pMODL20->vertexData );
144		nVertices = pMODL20->vertexData.nEntries / sizeof( Vertex );
145		}
146		}
147		pViews = GetEntries<DIV>( pMODL20->views );
148		break;
149
150		case 23:
151		pMODL23 = GetEntries<MODL23>(m_pHead->MODL );
152		if( (pMODL23->flags & 0x20000) != 0 ) { // Has vertices
153		if( (pMODL23->flags & 0x40000) != 0 ) { // Has extra 4 byte
154		pVerts1 = GetEntries<VertexExt>( pMODL23->vertexData );
155		nVertices = pMODL23->vertexData.nEntries/sizeof( VertexExt );
156		}
157		else {
158		pVerts2 = GetEntries<Vertex>( pMODL23->vertexData );
159		nVertices = pMODL23->vertexData.nEntries/sizeof( Vertex );
160		}
161		}
162		pViews = GetEntries<DIV>( pMODL23->views );
163		break;
164
165		default:
166		ok = false;
167		break;
168		}
169
170		// Everything ok, if not throw an exception
171		if ( !ok ) {
172		throw DeadlyImportError( "Failed to open file " + pFile + ".");
173		}
174
175		// Get all region data
176		regions = GetEntries<Region>( pViews->regions );
177
178		// Get the face data
179		faces = GetEntries<uint16>( pViews->faces );
180
181		// Convert the vertices
182		std::vector<aiVector3D> vertices;
183		vertices.resize( nVertices );
184		unsigned int offset = 0;
185		for ( unsigned int i = 0; i < nVertices; i++ ) {
186		if ( pVerts1 ) {
187		vertices[ offset ].Set( pVerts1[ i ].pos.x, pVerts1[ i ].pos.y, pVerts1[ i ].pos.z );
188		++offset;
189		}
190
191		if ( pVerts2 ) {
192		vertices[ offset ].Set( pVerts2[ i ].pos.x, pVerts2[ i ].pos.y, pVerts2[ i ].pos.z );
193		++offset;
194		}
195		}
196
197		// Write the UV coordinates
198		offset = 0;
199		std::vector<aiVector3D> uvCoords;
200		uvCoords.resize( nVertices );
201		for( unsigned int i = 0; i < nVertices; ++i ) {
202		if( pVerts1 ) {
203		float u = (float) pVerts1[ i ].uv[ 0 ] / 2048;
204		float v = (float) pVerts1[ i ].uv[ 1 ] / 2048;
205		uvCoords[ offset ].Set( u, v, 0.0f );
206		++offset;
207		}
208
209		if( pVerts2 ) {
210		float u = (float) pVerts2[ i ].uv[ 0 ] / 2048;
211		float v = (float) pVerts2[ i ].uv[ 1 ] / 2048;
212		uvCoords[ offset ].Set( u, v, 0.0f );
213		++offset;
214		}
215		}
216
217		// Compute the normals
218		std::vector<aiVector3D> normals;
219		normals.resize( nVertices );
220		float w = 0.0f;
221		Vec3D norm;
222		offset = 0;
223		for( unsigned int i = 0; i < nVertices; i++ ) {
224		w = 0.0f;
225		if( pVerts1 ) {
226		norm.x = (float) 2*pVerts1[ i ].normal[ 0 ]/255.0f - 1;
227		norm.y = (float) 2*pVerts1[ i ].normal[ 1 ]/255.0f - 1;
228		norm.z = (float) 2*pVerts1[ i ].normal[ 2 ]/255.0f - 1;
229		w = (float) pVerts1[ i ].normal[ 3 ]/255.0f;
230		}
231
232		if( pVerts2 ) {
233		norm.x = (float) 2*pVerts2[ i ].normal[ 0 ]/255.0f - 1;
234		norm.y = (float) 2*pVerts2[ i ].normal[ 1 ]/255.0f - 1;
235		norm.z = (float) 2*pVerts2[ i ].normal[ 2 ]/255.0f - 1;
236		w = (float) pVerts2[ i ].normal[ 3 ] / 255.0f;
237		}
238
239		if ( w ) {
240		const float invW = 1.0f / w;
241		norm.x = norm.x * invW;
242		norm.y = norm.y * invW;
243		norm.z = norm.z * invW;
244		normals[ offset ].Set( norm.x, norm.y, norm.z );
245		++offset;
246		}
247		}
248
249		// Convert the data into the assimp specific data structures
250		convertToAssimp( pFile, pScene, pViews, regions, faces, vertices, uvCoords, normals );
251		}
252
253		// ------------------------------------------------------------------------------------------------
254		//
255		void M3Importer::convertToAssimp( const std::string& pFile, aiScene* pScene, DIV *pViews,
256		Region pRegions, uint16 pFaces,
257		const std::vector<aiVector3D> &vertices,
258		const std::vector<aiVector3D> &uvCoords,
259		const std::vector<aiVector3D> &normals )
260		{
261		std::vector<aiMesh*> MeshArray;
262
263		// Create the root node
264		pScene->mRootNode = createNode( NULL );
265
266		// Set the name of the scene
267		pScene->mRootNode->mName.Set( pFile );
268
269		aiNode *pRootNode = pScene->mRootNode;
270		aiNode *pCurrentNode = NULL;
271
272		// Lets create the nodes
273		pRootNode->mNumChildren = pViews->regions.nEntries;
274		if ( pRootNode->mNumChildren > 0 ) {
275		pRootNode->mChildren = new aiNode*[ pRootNode->mNumChildren ];
276		}
277
278		for ( unsigned int i=0; i<pRootNode->mNumChildren; ++i ) {
279		//pRegions[ i ].
280		// Create a new node
281		pCurrentNode = createNode( pRootNode );
282		std::stringstream stream;
283		stream << "Node_" << i;
284		pCurrentNode->mName.Set( stream.str().c_str() );
285		pRootNode->mChildren[ i ] = pCurrentNode;
286
287		// Loop over the faces of the nodes
288		unsigned int numFaces = ( ( pRegions[ i ].ofsIndices + pRegions[ i ].nIndices ) - pRegions[ i ].ofsIndices ) / 3;
289		aiMesh *pMesh = new aiMesh;
290		MeshArray.push_back( pMesh );
291		pMesh->mPrimitiveTypes = aiPrimitiveType_TRIANGLE;
292
293		pMesh->mNumFaces = numFaces;
294		pMesh->mFaces = new aiFace[ pMesh->mNumFaces ];
295		aiFace *pCurrentFace = NULL;
296		unsigned int faceIdx = 0;
297		for ( unsigned int j = pRegions[ i ].ofsIndices; j < ( pRegions[ i ].ofsIndices + pRegions[ i ].nIndices ); j += 3 ) {
298		pCurrentFace = &( pMesh->mFaces[ faceIdx ] );
299		faceIdx++;
300		pCurrentFace->mNumIndices = 3;
301		pCurrentFace->mIndices = new unsigned int[ 3 ];
302		pCurrentFace->mIndices[ 0 ] = pFaces[ j ];
303		pCurrentFace->mIndices[ 1 ] = pFaces[ j+1 ];
304		pCurrentFace->mIndices[ 2 ] = pFaces[ j+2 ];
305		}
306		// Now we can create the vertex data itself
307		pCurrentNode->mNumMeshes = 1;
308		pCurrentNode->mMeshes = new unsigned int[ 1 ];
309		const unsigned int meshIdx = MeshArray.size() - 1;
310		pCurrentNode->mMeshes[ 0 ] = meshIdx;
311		createVertexData( pMesh, vertices, uvCoords, normals );
312		}
313
314		// Copy the meshes into the scene
315		pScene->mNumMeshes = MeshArray.size();
316		pScene->mMeshes = new aiMesh*[ MeshArray.size() ];
317		unsigned int pos = 0;
318		for ( std::vector<aiMesh*>::iterator it = MeshArray.begin(); it != MeshArray.end(); ++it ) {
319		pScene->mMeshes[ pos ] = *it;
320		++pos;
321		}
322		}
323
324		// ------------------------------------------------------------------------------------------------
325		//
326		void M3Importer::createVertexData( aiMesh *pMesh, const std::vector<aiVector3D> &vertices,
327		const std::vector<aiVector3D> &uvCoords,
328		const std::vector<aiVector3D> &normals )
329		{
330		pMesh->mNumVertices = pMesh->mNumFaces * 3;
331		pMesh->mVertices = new aiVector3D[ pMesh->mNumVertices ];
332		pMesh->mNumUVComponents[ 0 ] = 2;
333		pMesh->mTextureCoords[ 0 ] = new aiVector3D[ pMesh->mNumVertices ];
334		pMesh->mNormals = new aiVector3D[ pMesh->mNumVertices ];
335		unsigned int pos = 0;
336		for ( unsigned int currentFace = 0; currentFace < pMesh->mNumFaces; currentFace++ ) {
337		aiFace *pFace = &( pMesh->mFaces[ currentFace ] );
338		for ( unsigned int currentIdx=0; currentIdx<pFace->mNumIndices; currentIdx++ ) {
339		const unsigned int idx = pFace->mIndices[ currentIdx ];
340		if ( vertices.size() > idx ) {
341		pMesh->mVertices[ pos ] = vertices[ idx ];
342		pMesh->mNormals[ pos ] = normals[ idx ];
343		pMesh->mTextureCoords[ 0 ]->x = uvCoords[ idx ].x;
344		pMesh->mTextureCoords[ 0 ]->y = uvCoords[ idx ].y;
345		pFace->mIndices[ currentIdx ] = pos;
346		pos++;
347		}
348		}
349		}
350		}
351
352		// ------------------------------------------------------------------------------------------------
353		//
354		aiNode M3Importer::createNode( aiNode pParent )
355		{
356		aiNode *pNode = new aiNode;
357		if ( pParent )
358		pNode->mParent = pParent;
359		else
360		pNode->mParent = NULL;
361
362		return pNode;
363		}
364
365		// ------------------------------------------------------------------------------------------------
366
367		} // Namespace M3
368		} // Namespace Assimp
369
370		#endif // ASSIMP_BUILD_NO_M3_IMPORTER

-726

~~code/M3Importer.h~~ less more

0		/*
1		Open Asset Import Library (assimp)
2		----------------------------------------------------------------------
3
4		Copyright (c) 2006-2012, assimp team
5		All rights reserved.
6
7		Redistribution and use of this software in source and binary forms,
8		with or without modification, are permitted provided that the
9		following conditions are met:
10
11		* Redistributions of source code must retain the above
12		copyright notice, this list of conditions and the
13		following disclaimer.
14
15		* Redistributions in binary form must reproduce the above
16		copyright notice, this list of conditions and the
17		following disclaimer in the documentation and/or other
18		materials provided with the distribution.
19
20		* Neither the name of the assimp team, nor the names of its
21		contributors may be used to endorse or promote products
22		derived from this software without specific prior
23		written permission of the assimp team.
24
25		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
26		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
27		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
28		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
29		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
30		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
31		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
32		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
33		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
34		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
35		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
36
37		----------------------------------------------------------------------
38		*/
39		#ifndef AI_M3LOADER_H_INCLUDED
40		#define AI_M3LOADER_H_INCLUDED
41
42		#include <vector>
43
44		namespace Assimp {
45
46		namespace M3 {
47
48		// ------------------------------------------------------------------------------------------------
49		// The following data definitions are from http://code.google.com/p/libm3/, many thanks for that
50		// help.
51		// ------------------------------------------------------------------------------------------------
52		typedef unsigned char uint8;
53		typedef char int8;
54		typedef unsigned short uint16;
55		typedef short int16;
56		typedef unsigned int uint32;
57		typedef int int32;
58
59		class Vec3D
60		{
61		public:
62		float x,y,z;
63
64		Vec3D(float x0 = 0.0f, float y0 = 0.0f, float z0 = 0.0f) : x(x0), y(y0), z(z0) {}
65
66		Vec3D(const Vec3D& v) : x(v.x), y(v.y), z(v.z) {}
67
68		void reset()
69		{
70		x = y = z = 0.0f;
71		}
72
73		Vec3D& operator= (const Vec3D &v)
74		{
75		x = v.x;
76		y = v.y;
77		z = v.z;
78		return *this;
79		}
80
81		Vec3D operator+ (const Vec3D &v) const
82		{
83		Vec3D r(x+v.x,y+v.y,z+v.z);
84		return r;
85		}
86
87		Vec3D operator- (const Vec3D &v) const
88		{
89		Vec3D r(x-v.x,y-v.y,z-v.z);
90		return r;
91		}
92
93		float operator* (const Vec3D &v) const
94		{
95		return xv.x + yv.y + z*v.z;
96		}
97
98		Vec3D operator* (float d) const
99		{
100		Vec3D r(xd,yd,z*d);
101		return r;
102		}
103
104		Vec3D operator/ (float d) const
105		{
106		Vec3D r(x/d,y/d,z/d);
107		return r;
108		}
109
110		friend Vec3D operator* (float d, const Vec3D& v)
111		{
112		return v * d;
113		}
114
115		// Cross Product
116		Vec3D operator% (const Vec3D &v) const
117		{
118		Vec3D r(yv.z-zv.y, zv.x-xv.z, xv.y-yv.x);
119		return r;
120		}
121
122		Vec3D& operator+= (const Vec3D &v)
123		{
124		x += v.x;
125		y += v.y;
126		z += v.z;
127		return *this;
128		}
129
130		Vec3D& operator-= (const Vec3D &v)
131		{
132		x -= v.x;
133		y -= v.y;
134		z -= v.z;
135		return *this;
136		}
137
138		Vec3D& operator*= (float d)
139		{
140		x *= d;
141		y *= d;
142		z *= d;
143		return *this;
144		}
145
146		float lengthSquared() const
147		{
148		return xx+yy+z*z;
149		}
150
151		float length() const
152		{
153		return sqrtf(xx+yy+z*z);
154		}
155
156		Vec3D& normalize()
157		{
158		this->operator*= (1.0f/length());
159		return *this;
160		}
161
162		Vec3D operator~ () const
163		{
164		Vec3D r(*this);
165		r.normalize();
166		return r;
167		}
168
169		operator float*()
170		{
171		return (float*)this;
172		}
173		};
174
175
176		class Vec2D
177		{
178		public:
179		float x,y;
180
181		Vec2D(float x0 = 0.0f, float y0 = 0.0f) : x(x0), y(y0) {}
182
183		Vec2D(const Vec2D& v) : x(v.x), y(v.y) {}
184
185		Vec2D& operator= (const Vec2D &v)
186		{
187		x = v.x;
188		y = v.y;
189		return *this;
190		}
191
192		Vec2D operator+ (const Vec2D &v) const
193		{
194		Vec2D r(x+v.x,y+v.y);
195		return r;
196		}
197
198		Vec2D operator- (const Vec2D &v) const
199		{
200		Vec2D r(x-v.x,y-v.y);
201		return r;
202		}
203
204		float operator* (const Vec2D &v) const
205		{
206		return xv.x + yv.y;
207		}
208
209		Vec2D operator* (float d) const
210		{
211		Vec2D r(xd,yd);
212		return r;
213		}
214
215		friend Vec2D operator* (float d, const Vec2D& v)
216		{
217		return v * d;
218		}
219
220		Vec2D& operator+= (const Vec2D &v)
221		{
222		x += v.x;
223		y += v.y;
224		return *this;
225		}
226
227		Vec2D& operator-= (const Vec2D &v)
228		{
229		x -= v.x;
230		y -= v.y;
231		return *this;
232		}
233
234		Vec2D& operator*= (float d)
235		{
236		x *= d;
237		y *= d;
238		return *this;
239		}
240
241		float lengthSquared() const
242		{
243		return xx+yy;
244		}
245
246		float length() const
247		{
248		return sqrtf(xx+yy);
249		}
250
251		Vec2D& normalize()
252		{
253		this->operator*= (1.0f/length());
254		return *this;
255		}
256
257		Vec2D operator~ () const
258		{
259		Vec2D r(*this);
260		r.normalize();
261		return r;
262		}
263
264		operator float*()
265		{
266		return (float*)this;
267		}
268		};
269
270		inline
271		void rotate(float x0, float y0, float x, float y, float angle)
272		{
273		float xa = x - x0, ya = y - y0;
274		x = xacosf(angle) - ya*sinf(angle) + x0;
275		y = xasinf(angle) + ya*cosf(angle) + y0;
276		}
277
278		struct Reference
279		{
280		uint32 nEntries; // Code 0x00
281		uint32 ref; // Code 0x04
282		};
283
284		struct ReferenceEntry
285		{
286		char id[ 4 ]; // Code 0x00
287		uint32 offset; // Code 0x04
288		uint32 nEntries; // Code 0x08
289		uint32 type; // Code 0x0C
290		};
291
292		struct MD33
293		{
294		char id[4]; // Code 0x00
295		uint32 ofsRefs; // Code 0x04
296		uint32 nRefs; // Code 0x08
297		Reference MODL; // Code 0x0C
298		};
299
300		enum ModelType
301		{
302		Type1 = 20,
303		Type2 = 23
304		};
305
306		enum VertexFormat
307		{
308		Vertex_Standard,
309		Vertex_Extended
310		};
311
312		struct MODL23
313		{
314		Reference name; // Code 0x00
315		uint32 version; // Code 0x08
316		Reference sequenceHeader; // Code 0x0C
317		Reference sequenceData; // Code 0x14
318		Reference sequenceLookup; // Code 0x1C
319		uint32 d2; // Code 0x24
320		uint32 d3; // Code 0x28
321		uint32 d4; // Code 0x2C
322		Reference STS; // Code 0x30
323		Reference bones; // Code 0x38
324		uint32 d5; // Code 0x40
325		uint32 flags; // Code 0x44
326		Reference vertexData; // Code 0x48
327		Reference views; // Code 0x50
328		Reference B; // Code 0x58
329
330		Vec3D extents[2]; // Code 0x60
331		float radius; // Code 0x78
332
333		uint32 d7; // Code 0x7C
334		uint32 d8; // Code 0x80
335		uint32 d9; // Code 0x84
336		uint32 d10; // Code 0x88
337		uint32 d11; // Code 0x8C
338		uint32 d12; // Code 0x90
339		uint32 d13; // Code 0x94
340		uint32 d14; // Code 0x98
341		uint32 d15; // Code 0x9C
342		uint32 d16; // Code 0xA0
343		uint32 d17; // Code 0xA4
344		uint32 d18; // Code 0xA8
345		uint32 d19; // Code 0xAC
346
347		Reference attachments; // Code 0xB0
348		Reference attachmentLookup; // Code 0xB8
349		Reference lights; // Code 0xC0
350		Reference SHBX; // Code 0xC8
351		Reference cameras; // Code 0xD0
352		Reference D; // Code 0xD8
353		Reference materialLookup; // Code 0xE0
354		Reference materials; // Code 0xE8
355		Reference DIS; // Code 0xF0
356		Reference CMP; // Code 0xF8
357
358		Reference TER; // Code 0x10
359		Reference VOL; // Code 0x10
360		uint32 d21; // Code 0x11
361		uint32 d22; // Code 0x11
362		Reference CREP; // Code 0x11
363		Reference PAR; // Code 0x12
364		Reference PARC; // Code 0x12
365		Reference RIB; // Code 0x13
366		Reference PROJ; // Code 0x13
367		Reference FOR; // Code 0x14
368		Reference WRP; // Code 0x14
369		uint32 d24; // Code 0x15
370		uint32 d25; // Code 0x15
371		Reference PHRB; // Code 0x15
372		uint32 d27; // Code 0x16
373		uint32 d28; // Code 0x16
374		uint32 d29; // Code 0x16
375		uint32 d30; // Code 0x16
376		uint32 d32; // Code 0x17
377		uint32 d33; // Code 0x17
378		Reference IKJT; // Code 0x17
379		uint32 d35; // Code 0x18
380		uint32 d36; // Code 0x18
381		Reference PATU; // Code 0x18
382		Reference TRGD; // Code 0x19
383		Reference IREF; // Code 0x19
384		Reference E; // Code 0x1A
385		float matrix[4][4]; // Code 0x1A
386		Vec3D extent[2]; // Code 0x1E
387		float rad; // Code 0x20
388		Reference SSGS; // Code 0x20
389		Reference ATVL; // Code 0x20
390		uint32 d61; // Code 0x21
391		Reference F; // uint16, Code6 0x21
392		Reference G; // uint16, Code 0x21
393		Reference BBSC; // Code 0x22
394		Reference TMD; // Code 0x22
395		uint32 d62; // Code 0x23
396		uint32 d63; // Code 0x23
397		uint32 d64; // Code 0x23
398		};
399
400		struct MODL20
401		{
402		Reference name; // Code 0x00
403		uint32 version; // Code 0x08
404		Reference sequenceHeader; // Code 0x0C
405		Reference sequenceData; // Code 0x14
406		Reference sequenceLookup; // Code 0x1C
407		uint32 d2; // Code 0x24
408		uint32 d3; // Code 0x28
409		uint32 d4; // Code 0x2C
410		Reference STS; // Code 0x30
411		Reference bones; // Code 0x38
412		uint32 d5; // Code 0x44
413		uint32 flags; // Code 0x44
414		Reference vertexData; // uint8, Code 0x48
415		Reference views; // Code 0x50
416		Reference B; // uint16, Code 0x58
417
418		Vec3D extents[2]; // Code 0x60
419		float radius; // Code 0x78
420
421		uint32 d7; // Code 0x7C
422		uint32 d8; // Code 0x80
423		uint32 d9; // Code 0x84
424		uint32 d10; // Code 0x88
425		uint32 d11; // Code 0x8C
426		uint32 d12; // Code 0x90
427		uint32 d13; // Code 0x94
428		uint32 d14; // Code 0x98
429		uint32 d15; // Code 0x9C
430		uint32 d16; // Code 0xA0
431		uint32 d17; // Code 0xA4
432		uint32 d18; // Code 0xA8
433		uint32 d19; // Code 0xAC
434
435		Reference attachments; // Code 0xB0
436		Reference attachmentLookup; // uint16, Code 0xB8
437		Reference lights; // Code 0xC0
438		Reference cameras; // Code 0xC8
439		Reference D; // uint16, Code 0xD0
440		Reference materialLookup; // Code 0xD8
441		Reference materials; // Code 0xE0
442		Reference DIS; // Code 0xE8
443		Reference CMP; // Code 0xF0
444		Reference TER; // Code 0xF8
445
446		uint32 d20; // Code 0x10
447		uint32 d21; // Code 0x10
448		uint32 d22; // Code 0x10
449		uint32 d23; // Code 0x10
450		Reference CREP; // Code 0x11
451		Reference PAR; // Code 0x11
452		Reference PARC; // Code 0x12
453		Reference RIB; // Code 0x12
454		Reference PROJ; // Code 0x13
455		Reference FOR; // Code 0x13
456		uint32 d25; // Code 0x14
457		uint32 d26; // Code 0x14
458		uint32 d27; // Code 0x14
459		uint32 d28; // Code 0x14
460		Reference PHRB; // Code 0x15
461		uint32 d30; // Code 0x15
462		uint32 d31; // Code 0x15
463		uint32 d32; // Code 0x16
464		uint32 d33; // Code 0x16
465		uint32 d34; // Code 0x16
466		uint32 d35; // Code 0x16
467		Reference IKJT; // Code 0x17
468		uint32 d36; // Code 0x17
469		uint32 d37; // Code 0x17
470		Reference PATU; // Code 0x18
471		Reference TRGD; // Code 0x18
472		Reference IREF; // Code 0x19
473		Reference E; // int32, Code 0x19
474
475		float matrix[4][4]; // Code 0x1A
476		Vec3D extent[2]; // Code 0x1E
477		float rad; // Code 0x1F
478
479		Reference SSGS; // Code 0x1F
480		uint32 d38; // Code 0x20
481		uint32 d39; // Code 0x20
482		Reference BBSC; // Code 0x20
483
484		uint32 d40; // Code 0x21
485		uint32 d41; // Code 0x21
486		uint32 d42; // Code 0x21
487		uint32 d43; // Code 0x22
488		uint32 d44; // Code 0x22
489		};
490
491		struct BONE
492		{
493		int32 d1; // Keybone?
494		Reference name;
495		uint32 flags;
496		int16 parent;
497		int16 s1;
498
499		float floats[ 34 ];
500		};
501
502		struct VertexExt // 36 byte
503		{
504		Vec3D pos;
505		uint8 boneWeight[ 4 ];
506		uint8 boneIndex[ 4 ];
507		uint8 normal[ 4 ]; //normal_x = (float)normal[0]/255.0f...
508		int16 uv[ 2 ];
509		uint32 d1;
510		uint8 tangent[ 4 ];
511		};
512
513		struct Vertex // 32 byte
514		{
515		Vec3D pos;
516		uint8 boneWeight[4];
517		uint8 boneIndex[4];
518		uint8 normal[4]; //normal_x = (float)normal[0]/255.0f...
519		int16 uv[2];
520		uint8 tangent[4];
521		};
522
523		struct MATM
524		{
525		uint32 d1;
526		uint32 d2; // Index into MAT-table?
527		};
528
529		struct MAT
530		{
531		Reference name;
532		int ukn1[ 8 ];
533		float x, y; //always 1.0f
534		Reference layers[13];
535		int ukn2[15];
536		};
537
538		struct LAYR
539		{
540		int unk;
541		Reference name;
542		float unk2[85];
543		};
544
545		struct DIV
546		{
547		Reference faces; // Code 0x00
548		Reference regions; // Code 0x08
549		Reference BAT; // Code 0x10
550		Reference MSEC; // Code 0x18
551		};
552
553		struct Region
554		{
555		uint32 unk;
556		uint16 ofsVertices;
557		uint16 nVertices;
558		uint32 ofsIndices;
559		uint32 nIndices; // reference into DIV.faces
560		uint8 unknown[12];
561		};
562
563		struct CAM
564		{
565		int32 d1; // Code 0x00
566		Reference name; // Code 0x04
567		uint16 flags1; // Code 0x0C
568		uint16 flags2; // Code 0x0E
569		};
570
571		struct EVNT
572		{
573		Reference name; // Code 0x00
574		int16 unk1[4]; // Code 0x08
575		float matrix[4][4]; // Code 0x10
576		int32 unk2[4]; // Code 0x50
577		};
578
579		struct ATT
580		{
581		int32 unk; // Code 0x00
582		Reference name; // Code 0x04
583		int32 bone; // Code 0x0C
584		};
585
586		struct PHSH
587		{
588		float m[ 4 ][ 4 ];
589		float f1;
590		float f2;
591		Reference refs[ 5 ];
592		float f3;
593		};
594
595		struct SEQS
596		{
597		int32 d1; // Code 0x00
598		int32 d2; // Code 0x04
599		Reference name; // Code 0x08
600		int32 d3; // Code 0x10
601		uint32 length; // Code 0x14
602		int32 d4; // Code 0x18
603		uint32 flags; // Code 0x1C
604		int32 unk[5]; // Code 0x20
605		Vec3D extents[2]; // Code 0x34
606		float radius; // Code 0x4C
607		int32 d5; // Code 0x50
608		int32 d6; // Code 0x54
609		};
610
611		struct STC
612		{
613		Reference name; // Code 0x00
614		uint16 s1; // Code 0x08
615		uint16 s2; // Code 0x0A
616		uint16 s3; // Code 0x0C
617		uint16 s4; // Code 0x0E
618		Reference unk2; // uint32 // Code 0x12
619		Reference unk3; // uint32 // Code 0x1A
620		uint32 d3; // Code 0x22
621		Reference evt; // Code 0x24
622		Reference unk4[11]; // Seems to be transformation data // Code 0x2C
623		Reference bnds; // Code 0x84
624		};
625
626		struct STS
627		{
628		Reference unk1; // uint32 // Code 0x00
629		int32 unk[3]; // Code 0x08
630		int16 s1; // Code 0x14
631		int16 s2; // Code 0x16
632		};
633
634		struct STG
635		{
636		Reference name; // Code 0x00
637		Reference stcID; // Code 0x08
638		};
639
640		struct SD
641		{
642		Reference timeline; // Code 0x00
643		uint32 flags; // Code 0x08
644		uint32 length; // Code 0x0C
645		Reference data; // Code 0x10
646		};
647
648		struct BNDS
649		{
650		Vec3D extents1[2]; // Code 0x00
651		float radius1; // Code 0x18
652		Vec3D extents2[2]; // Code 0x1C
653		float radius2; // Code 0x34
654		};
655
656		struct VEC2
657		{
658		float x, y;
659		};
660
661		struct VEC3
662		{
663		float x, y, z;
664		};
665
666		struct VEC4
667		{
668		float x, y, z, w;
669		};
670
671		struct QUAT
672		{
673		float x, y, z, w;
674		};
675
676		// ------------------------------------------------------------------------------------------------
677		/** Loader to import M3-models.
678		*/
679		// ------------------------------------------------------------------------------------------------
680		class M3Importer : public BaseImporter
681		{
682		friend class Importer;
683
684		public:
685		/// @brief The default constructor.
686		M3Importer();
687
688		/// @brief The destructor.
689		~M3Importer();
690
691		/// @brief Returns whether the class can handle the format of the given file.
692		/// @remark See BaseImporter::CanRead() for details.
693		bool CanRead( const std::string& pFile, IOSystem* pIOHandler, bool checkSig ) const;
694
695		private:
696		const aiImporterDesc* GetInfo () const;
697		void InternReadFile( const std::string& pFile, aiScene* pScene, IOSystem* pIOHandler );
698		void convertToAssimp( const std::string& pFile, aiScene* pScene, DIV pViews, Region pRegions, uint16 *pFaces,
699		const std::vector<aiVector3D> &vertices, const std::vector<aiVector3D> &uvCoords, const std::vector<aiVector3D> &normals );
700		void createVertexData( aiMesh *pMesh, const std::vector<aiVector3D> &vertices, const std::vector<aiVector3D> &uvCoords,
701		const std::vector<aiVector3D> &normals );
702		aiNode createNode( aiNode pParent );
703		template<typename T>
704		T* GetEntries( Reference ref );
705
706		private:
707		MD33 *m_pHead;
708		ReferenceEntry *m_pRefs;
709		std::vector<unsigned char> m_Buffer;
710		};
711
712		// ------------------------------------------------------------------------------------------------
713		template<typename T>
714		inline
715		T* M3Importer::GetEntries( Reference ref )
716		{
717		return (T*) ( &m_Buffer[ 0 ] + m_pRefs[ ref.ref ].offset );
718		}
719
720		// ------------------------------------------------------------------------------------------------
721
722		} // Namespace M3
723		} // Namespace Assimp
724
725		#endif // AI_M3LOADER_H_INCLUDED

-1

code/MD5Loader.cpp less more

186	186	ai_assert(fileSize);
187	187
188	188	// allocate storage and copy the contents of the file to a memory buffer
189		pScene = pScene;
190	189	mBuffer = new char[fileSize+1];
191	190	file->Read( (void*)mBuffer, 1, fileSize);
192	191	iLineNumber = 1;

-1

code/MDLMaterialLoader.cpp less more

786	786	}
787	787
788	788	// ------------------------------------------------------------------------------------------------
789		// What the fuck does this function do? Can't remember
790	789	void MDLImporter::ParseSkinLump_3DGS_MDL7(
791	790	const unsigned char* szCurrent,
792	791	const unsigned char** szCurrentOut,

-1

code/MS3DLoader.cpp less more

562	562	}
563	563
564	564	// ... add dummy nodes under a single root, each holding a reference to one
565		// mesh. If we didn't do this, we'd loose the group name.
	565	// mesh. If we didn't do this, we'd lose the group name.
566	566	aiNode* rt = pScene->mRootNode = new aiNode("<MS3DRoot>");
567	567
568	568	#ifdef ASSIMP_BUILD_MS3D_ONE_NODE_PER_MESH

+14

-2

code/MaterialSystem.cpp less more

101	101	}
102	102
103	103	// data is given in floats, simply copy it
104		unsigned int iWrite;
	104	unsigned int iWrite = 0;
105	105	if( aiPTI_Float == prop->mType \|\| aiPTI_Buffer == prop->mType) {
106	106	iWrite = prop->mDataLength / sizeof(float);
107	107	if (pMax) {

174	174	}
175	175
176	176	// data is given in ints, simply copy it
177		unsigned int iWrite;
	177	unsigned int iWrite = 0;
178	178	if( aiPTI_Integer == prop->mType \|\| aiPTI_Buffer == prop->mType) {
179	179	iWrite = prop->mDataLength / sizeof(int32_t);
180	180	if (pMax) {

247	247	}
248	248
249	249	// ------------------------------------------------------------------------------------------------
	250	// Get a aiUVTransform (4 floats) from the material
	251	aiReturn aiGetMaterialUVTransform(const aiMaterial* pMat,
	252	const char* pKey,
	253	unsigned int type,
	254	unsigned int index,
	255	aiUVTransform* pOut)
	256	{
	257	unsigned int iMax = 4;
	258	return aiGetMaterialFloatArray(pMat,pKey,type,index,(float*)pOut,&iMax);
	259	}
	260
	261	// ------------------------------------------------------------------------------------------------
250	262	// Get a string from the material
251	263	aiReturn aiGetMaterialString(const aiMaterial* pMat,
252	264	const char* pKey,

+11

-2

code/MemoryIOWrapper.h less more

52	52	{
53	53	//friend class MemoryIOSystem;
54	54	public:
55		MemoryIOStream (const uint8_t* buff, size_t len)
56		: buffer (buff), length(len), pos((size_t)0) {
	55	MemoryIOStream (const uint8_t* buff, size_t len, bool own = false)
	56	: buffer (buff)
	57	, length(len)
	58	, pos((size_t)0)
	59	, own(own)
	60	{
57	61	}
58	62
59	63	public:
	64
60	65	~MemoryIOStream () {
	66	if(own) {
	67	delete[] buffer;
	68	}
61	69	}
62	70
63	71	// -------------------------------------------------------------------

123	131	private:
124	132	const uint8_t* buffer;
125	133	size_t length,pos;
	134	bool own;
126	135	};
127	136
128	137	// ---------------------------------------------------------------------------

-1

code/NDOLoader.cpp less more

43	43	*/
44	44
45	45	#include "AssimpPCH.h"
46		#ifndef AI_BUILD_NO_NDO_IMPORTER
	46	#ifndef ASSIMP_BUILD_NO_NDO_IMPORTER
47	47	#include "NDOLoader.h"
48	48
49	49	using namespace Assimp;

+50

-11

code/ObjExporter.cpp less more

58	58	// we're still here - export successfully completed. Write both the main OBJ file and the material script
59	59	{
60	60	boost::scoped_ptr<IOStream> outfile (pIOSystem->Open(pFile,"wt"));
	61	if(outfile == NULL) {
	62	throw DeadlyExportError("could not open output .obj file: " + std::string(pFile));
	63	}
61	64	outfile->Write( exporter.mOutput.str().c_str(), static_cast<size_t>(exporter.mOutput.tellp()),1);
62	65	}
63	66	{
64	67	boost::scoped_ptr<IOStream> outfile (pIOSystem->Open(exporter.GetMaterialLibFileName(),"wt"));
	68	if(outfile == NULL) {
	69	throw DeadlyExportError("could not open output .mtl file: " + std::string(exporter.GetMaterialLibFileName()));
	70	}
65	71	outfile->Write( exporter.mOutputMat.str().c_str(), static_cast<size_t>(exporter.mOutputMat.tellp()),1);
66	72	}
67	73	}

145	151	if(AI_SUCCESS == mat->Get(AI_MATKEY_COLOR_SPECULAR,c)) {
146	152	mOutputMat << "ks " << c.r << " " << c.g << " " << c.b << endl;
147	153	}
	154	if(AI_SUCCESS == mat->Get(AI_MATKEY_COLOR_EMISSIVE,c)) {
	155	mOutputMat << "ke " << c.r << " " << c.g << " " << c.b << endl;
	156	}
148	157
149	158	float o;
150	159	if(AI_SUCCESS == mat->Get(AI_MATKEY_OPACITY,o)) {

192	201	AddNode(pScene->mRootNode,mBase);
193	202
194	203	// write vertex positions
	204	vpMap.getVectors(vp);
195	205	mOutput << "# " << vp.size() << " vertex positions" << endl;
196	206	BOOST_FOREACH(const aiVector3D& v, vp) {
197	207	mOutput << "v " << v.x << " " << v.y << " " << v.z << endl;

199	209	mOutput << endl;
200	210
201	211	// write uv coordinates
	212	vtMap.getVectors(vt);
202	213	mOutput << "# " << vt.size() << " UV coordinates" << endl;
203	214	BOOST_FOREACH(const aiVector3D& v, vt) {
204	215	mOutput << "vt " << v.x << " " << v.y << " " << v.z << endl;

206	217	mOutput << endl;
207	218
208	219	// write vertex normals
	220	vnMap.getVectors(vn);
209	221	mOutput << "# " << vn.size() << " vertex normals" << endl;
210	222	BOOST_FOREACH(const aiVector3D& v, vn) {
211	223	mOutput << "vn " << v.x << " " << v.y << " " << v.z << endl;

245	257	}
246	258	}
247	259
	260
	261
	262
	263
	264	int ObjExporter::vecIndexMap::getIndex(const aiVector3D& vec)
	265	{
	266	vecIndexMap::dataType::iterator vertIt = vecMap.find(vec);
	267	if(vertIt != vecMap.end()){// vertex already exists, so reference it
	268	return vertIt->second;
	269	}
	270	vecMap[vec] = mNextIndex;
	271	int ret = mNextIndex;
	272	mNextIndex++;
	273	return ret;
	274	}
	275
	276	void ObjExporter::vecIndexMap::getVectors( std::vector<aiVector3D>& vecs )
	277	{
	278	vecs.resize(vecMap.size());
	279	for(vecIndexMap::dataType::iterator it = vecMap.begin(); it != vecMap.end(); it++){
	280	vecs[it->second-1] = it->first;
	281	}
	282	}
	283
	284
248	285	// ------------------------------------------------------------------------------------------------
249	286	void ObjExporter :: AddMesh(const aiString& name, const aiMesh* m, const aiMatrix4x4& mat)
250	287	{

255	292	mesh.matname = GetMaterialName(m->mMaterialIndex);
256	293
257	294	mesh.faces.resize(m->mNumFaces);
	295
258	296	for(unsigned int i = 0; i < m->mNumFaces; ++i) {
259	297	const aiFace& f = m->mFaces[i];
260	298

274	312	for(unsigned int a = 0; a < f.mNumIndices; ++a) {
275	313	const unsigned int idx = f.mIndices[a];
276	314
277		// XXX need a way to check if this is an unique vertex or if we had it already,
278		// in which case we should instead reference the previous occurrence.
279		ai_assert(m->mVertices);
280		vp.push_back( mat * m->mVertices[idx] );
281		face.indices[a].vp = vp.size();
	315	aiVector3D vert = mat * m->mVertices[idx];
	316	face.indices[a].vp = vpMap.getIndex(vert);
282	317
283	318	if (m->mNormals) {
284		vn.push_back( m->mNormals[idx] );
285		}
286		face.indices[a].vn = vn.size();
	319	face.indices[a].vn = vnMap.getIndex(m->mNormals[idx]);
	320	}
	321	else{
	322	face.indices[a].vn = 0;
	323	}
287	324
288	325	if (m->mTextureCoords[0]) {
289		vt.push_back( m->mTextureCoords[0][idx] );
290		}
291		face.indices[a].vt = vt.size();
	326	face.indices[a].vt = vtMap.getIndex(m->mTextureCoords[0][idx]);
	327	}
	328	else{
	329	face.indices[a].vt = 0;
	330	}
292	331	}
293	332	}
294	333	}

+30

-0

code/ObjExporter.h less more

111	111	const aiScene* const pScene;
112	112
113	113	std::vector<aiVector3D> vp, vn, vt;
	114
	115
	116	struct aiVectorCompare
	117	{
	118	bool operator() (const aiVector3D& a, const aiVector3D& b) const
	119	{
	120	if(a.x < b.x) return true;
	121	if(a.x > b.x) return false;
	122	if(a.y < b.y) return true;
	123	if(a.y > b.y) return false;
	124	if(a.z < b.z) return true;
	125	return false;
	126	}
	127	};
	128
	129	class vecIndexMap
	130	{
	131	int mNextIndex;
	132	typedef std::map<aiVector3D, int, aiVectorCompare> dataType;
	133	dataType vecMap;
	134	public:
	135
	136	vecIndexMap():mNextIndex(1)
	137	{}
	138
	139	int getIndex(const aiVector3D& vec);
	140	void getVectors( std::vector<aiVector3D>& vecs );
	141	};
	142
	143	vecIndexMap vpMap, vnMap, vtMap;
114	144	std::vector<MeshInstance> meshes;
115	145
116	146	// this endl() doesn't flush() the stream

+28

-4

code/ObjFileData.h less more

155	155	aiString texture;
156	156	aiString textureSpecular;
157	157	aiString textureAmbient;
	158	aiString textureEmissive;
158	159	aiString textureBump;
	160	aiString textureNormal;
159	161	aiString textureSpecularity;
160	162	aiString textureOpacity;
	163	aiString textureDisp;
	164	enum TextureType
	165	{
	166	TextureDiffuseType = 0,
	167	TextureSpecularType,
	168	TextureAmbientType,
	169	TextureEmissiveType,
	170	TextureBumpType,
	171	TextureNormalType,
	172	TextureSpecularityType,
	173	TextureOpacityType,
	174	TextureDispType,
	175	TextureTypeCount
	176	};
	177	bool clamp[TextureTypeCount];
161	178
162	179	//! Ambient color
163	180	aiColor3D ambient;

165	182	aiColor3D diffuse;
166	183	//! Specular color
167	184	aiColor3D specular;
	185	//! Emissive color
	186	aiColor3D emissive;
168	187	//! Alpha value
169	188	float alpha;
170	189	//! Shineness factor

183	202	, ior (1.f)
184	203	{
185	204	// empty
	205	for (size_t i = 0; i < TextureTypeCount; ++i)
	206	{
	207	clamp[i] = false;
	208	}
186	209	}
187	210
188	211	// Destructor

266	289	//! Active group
267	290	std::string m_strActiveGroup;
268	291	//! Vector with generated texture coordinates
269		std::vector<aiVector2D> m_TextureCoord;
	292	std::vector<aiVector3D> m_TextureCoord;
270	293	//! Current mesh instance
271	294	Mesh *m_pCurrentMesh;
272	295	//! Vector with stored meshes

274	297	//! Material map
275	298	std::map<std::string, Material*> m_MaterialMap;
276	299
277		//! \brief Default constructor
	300	//! \brief The default class constructor
278	301	Model() :
279	302	m_ModelName(""),
280	303	m_pCurrent(NULL),
281	304	m_pCurrentMaterial(NULL),
282	305	m_pDefaultMaterial(NULL),
	306	m_pGroupFaceIDs(NULL),
283	307	m_strActiveGroup(""),
284	308	m_pCurrentMesh(NULL)
285	309	{
286	310	// empty
287	311	}
288	312
289		//! \brief Destructor
	313	//! \brief The class destructor
290	314	~Model()
291	315	{
292	316	// Clear all stored object instances

309	333	m_Groups.clear();
310	334
311	335	for ( std::map<std::string, Material*>::iterator it = m_MaterialMap.begin(); it != m_MaterialMap.end(); ++it ) {
312		// delete it->second;
	336	delete it->second;
313	337	}
314	338	}
315	339	};

+131

-47

code/ObjFileImporter.cpp less more

59	59	"obj"
60	60	};
61	61
	62	static const unsigned int ObjMinSize = 16;
62	63
63	64	namespace Assimp {
64	65

79	80	// Destructor.
80	81	ObjFileImporter::~ObjFileImporter()
81	82	{
82		// Release root object instance
83		if (NULL != m_pRootObject)
84		{
85		delete m_pRootObject;
86		m_pRootObject = NULL;
87		}
	83	delete m_pRootObject;
	84	m_pRootObject = NULL;
88	85	}
89	86
90	87	// ------------------------------------------------------------------------------------------------

117	114	// Read file into memory
118	115	const std::string mode = "rb";
119	116	boost::scoped_ptr<IOStream> file( pIOHandler->Open( pFile, mode));
120		if (NULL == file.get())
121		throw DeadlyImportError( "Failed to open file " + pFile + ".");
	117	if( !file.get() ) {
	118	throw DeadlyImportError( "Failed to open file " + pFile + "." );
	119	}
122	120
123	121	// Get the file-size and validate it, throwing an exception when fails
124	122	size_t fileSize = file->FileSize();
125		if( fileSize < 16)
	123	if( fileSize < ObjMinSize ) {
126	124	throw DeadlyImportError( "OBJ-file is too small.");
	125	}
127	126
128	127	// Allocate buffer and read file into it
129	128	TextFileToBuffer(file.get(),m_Buffer);

139	138	{
140	139	strModelName = pFile;
141	140	}
142
	141
	142	// process all '\'
	143	std::vector<char> ::iterator iter = m_Buffer.begin();
	144	while (iter != m_Buffer.end())
	145	{
	146	if (*iter == '\\')
	147	{
	148	// remove '\'
	149	iter = m_Buffer.erase(iter);
	150	// remove next character
	151	while (iter == '\r' \|\| iter == '\n')
	152	iter = m_Buffer.erase(iter);
	153	}
	154	else
	155	++iter;
	156	}
	157
143	158	// parse the file into a temporary representation
144	159	ObjFileParser parser(m_Buffer, strModelName, pIOHandler);
145	160

152	167
153	168	// ------------------------------------------------------------------------------------------------
154	169	// Create the data from parsed obj-file
155		void ObjFileImporter::CreateDataFromImport(const ObjFile::Model* pModel, aiScene* pScene)
156		{
157		if (0L == pModel)
158		return;
	170	void ObjFileImporter::CreateDataFromImport(const ObjFile::Model* pModel, aiScene* pScene) {
	171	if( 0L == pModel ) {
	172	return;
	173	}
159	174
160	175	// Create the root node of the scene
161	176	pScene->mRootNode = new aiNode;

166	181	}
167	182	else
168	183	{
169		// This is an error, so break down the application
	184	// This is a fatal error, so break down the application
170	185	ai_assert(false);
171		}
	186	}
172	187
173	188	// Create nodes for the whole scene
174	189	std::vector<aiMesh*> MeshArray;
175	190	for (size_t index = 0; index < pModel->m_Objects.size(); index++)
176	191	{
177		createNodes(pModel, pModel->m_Objects[ index ], index, pScene->mRootNode, pScene, MeshArray);
	192	createNodes(pModel, pModel->m_Objects[ index ], pScene->mRootNode, pScene, MeshArray);
178	193	}
179	194
180	195	// Create mesh pointer buffer for this scene

194	209	// ------------------------------------------------------------------------------------------------
195	210	// Creates all nodes of the model
196	211	aiNode ObjFileImporter::createNodes(const ObjFile::Model pModel, const ObjFile::Object* pObject,
197		unsigned int /uiMeshIndex/,
198	212	aiNode pParent, aiScene pScene,
199	213	std::vector<aiMesh*> &MeshArray )
200	214	{
201	215	ai_assert( NULL != pModel );
202		if ( NULL == pObject )
203		return NULL;
	216	if( NULL == pObject ) {
	217	return NULL;
	218	}
204	219
205	220	// Store older mesh size to be able to computes mesh offsets for new mesh instances
206	221	const size_t oldMeshSize = MeshArray.size();

209	224	pNode->mName = pObject->m_strObjName;
210	225
211	226	// If we have a parent node, store it
212		if (pParent != NULL)
213		appendChildToParentNode(pParent, pNode);
	227	if( pParent != NULL ) {
	228	appendChildToParentNode( pParent, pNode );
	229	}
214	230
215	231	for ( unsigned int i=0; i< pObject->m_Meshes.size(); i++ )
216	232	{

264	280	{
265	281	// Checking preconditions
266	282	ai_assert( NULL != pModel );
267		if (NULL == pData)
268		return;
	283	if( NULL == pData ) {
	284	return;
	285	}
269	286
270	287	// Create faces
271	288	ObjFile::Mesh *pObjMesh = pModel->m_Meshes[ uiMeshIndex ];

275	292	for (size_t index = 0; index < pObjMesh->m_Faces.size(); index++)
276	293	{
277	294	ObjFile::Face* const inp = pObjMesh->m_Faces[ index ];
	295
278	296	if (inp->m_PrimitiveType == aiPrimitiveType_LINE) {
279	297	pMesh->mNumFaces += inp->m_pVertices->size() - 1;
	298	pMesh->mPrimitiveTypes \|= aiPrimitiveType_LINE;
280	299	}
281	300	else if (inp->m_PrimitiveType == aiPrimitiveType_POINT) {
282	301	pMesh->mNumFaces += inp->m_pVertices->size();
283		}
284		else {
	302	pMesh->mPrimitiveTypes \|= aiPrimitiveType_POINT;
	303	} else {
285	304	++pMesh->mNumFaces;
	305	if (inp->m_pVertices->size() > 3) {
	306	pMesh->mPrimitiveTypes \|= aiPrimitiveType_POLYGON;
	307	}
	308	else {
	309	pMesh->mPrimitiveTypes \|= aiPrimitiveType_TRIANGLE;
	310	}
286	311	}
287	312	}
288	313

383	408	pMesh->mVertices[ newIndex ] = pModel->m_Vertices[ vertex ];
384	409
385	410	// Copy all normals
386		if ( !pSourceFace->m_pNormals->empty() && !pModel->m_Normals.empty())
	411	if ( !pModel->m_Normals.empty() && vertexIndex < pSourceFace->m_pNormals->size())
387	412	{
388	413	const unsigned int normal = pSourceFace->m_pNormals->at( vertexIndex );
389	414	if ( normal >= pModel->m_Normals.size() )

393	418	}
394	419
395	420	// Copy all texture coordinates
396		if ( !pModel->m_TextureCoord.empty() )
397		{
398		if ( !pSourceFace->m_pTexturCoords->empty() )
399		{
400		const unsigned int tex = pSourceFace->m_pTexturCoords->at( vertexIndex );
401		ai_assert( tex < pModel->m_TextureCoord.size() );
402		for ( size_t i=0; i < pMesh->GetNumUVChannels(); i++ )
403		{
404		if ( tex >= pModel->m_TextureCoord.size() )
405		throw DeadlyImportError("OBJ: texture coord index out of range");
406
407		aiVector2D coord2d = pModel->m_TextureCoord[ tex ];
408		pMesh->mTextureCoords[ i ][ newIndex ] = aiVector3D( coord2d.x, coord2d.y, 0.0 );
409		}
410		}
	421	if ( !pModel->m_TextureCoord.empty() && vertexIndex < pSourceFace->m_pTexturCoords->size())
	422	{
	423	const unsigned int tex = pSourceFace->m_pTexturCoords->at( vertexIndex );
	424	ai_assert( tex < pModel->m_TextureCoord.size() );
	425
	426	if ( tex >= pModel->m_TextureCoord.size() )
	427	throw DeadlyImportError("OBJ: texture coordinate index out of range");
	428
	429	const aiVector3D &coord3d = pModel->m_TextureCoord[ tex ];
	430	pMesh->mTextureCoords[ 0 ][ newIndex ] = aiVector3D( coord3d.x, coord3d.y, coord3d.z );
411	431	}
412	432
413	433	ai_assert( pMesh->mNumVertices > newIndex );

480	500	}
481	501
482	502	// ------------------------------------------------------------------------------------------------
	503	// Add clamp mode property to material if necessary
	504	void ObjFileImporter::addTextureMappingModeProperty(aiMaterial* mat, aiTextureType type, int clampMode)
	505	{
	506	ai_assert( NULL != mat);
	507	mat->AddProperty<int>(&clampMode, 1, AI_MATKEY_MAPPINGMODE_U(type, 0));
	508	mat->AddProperty<int>(&clampMode, 1, AI_MATKEY_MAPPINGMODE_V(type, 0));
	509	}
	510
	511	// ------------------------------------------------------------------------------------------------
483	512	// Creates the material
484	513	void ObjFileImporter::createMaterials(const ObjFile::Model* pModel, aiScene* pScene )
485	514	{

536	565	mat->AddProperty( &pCurrentMaterial->ambient, 1, AI_MATKEY_COLOR_AMBIENT );
537	566	mat->AddProperty( &pCurrentMaterial->diffuse, 1, AI_MATKEY_COLOR_DIFFUSE );
538	567	mat->AddProperty( &pCurrentMaterial->specular, 1, AI_MATKEY_COLOR_SPECULAR );
	568	mat->AddProperty( &pCurrentMaterial->emissive, 1, AI_MATKEY_COLOR_EMISSIVE );
539	569	mat->AddProperty( &pCurrentMaterial->shineness, 1, AI_MATKEY_SHININESS );
540	570	mat->AddProperty( &pCurrentMaterial->alpha, 1, AI_MATKEY_OPACITY );
541	571

543	573	mat->AddProperty( &pCurrentMaterial->ior, 1, AI_MATKEY_REFRACTI );
544	574
545	575	// Adding textures
546		if ( 0 != pCurrentMaterial->texture.length )
	576	if ( 0 != pCurrentMaterial->texture.length )
	577	{
547	578	mat->AddProperty( &pCurrentMaterial->texture, AI_MATKEY_TEXTURE_DIFFUSE(0));
	579	if (pCurrentMaterial->clamp[ObjFile::Material::TextureDiffuseType])
	580	{
	581	addTextureMappingModeProperty(mat, aiTextureType_DIFFUSE);
	582	}
	583	}
548	584
549	585	if ( 0 != pCurrentMaterial->textureAmbient.length )
	586	{
550	587	mat->AddProperty( &pCurrentMaterial->textureAmbient, AI_MATKEY_TEXTURE_AMBIENT(0));
	588	if (pCurrentMaterial->clamp[ObjFile::Material::TextureAmbientType])
	589	{
	590	addTextureMappingModeProperty(mat, aiTextureType_AMBIENT);
	591	}
	592	}
	593
	594	if ( 0 != pCurrentMaterial->textureEmissive.length )
	595	mat->AddProperty( &pCurrentMaterial->textureEmissive, AI_MATKEY_TEXTURE_EMISSIVE(0));
551	596
552	597	if ( 0 != pCurrentMaterial->textureSpecular.length )
	598	{
553	599	mat->AddProperty( &pCurrentMaterial->textureSpecular, AI_MATKEY_TEXTURE_SPECULAR(0));
	600	if (pCurrentMaterial->clamp[ObjFile::Material::TextureSpecularType])
	601	{
	602	addTextureMappingModeProperty(mat, aiTextureType_SPECULAR);
	603	}
	604	}
554	605
555	606	if ( 0 != pCurrentMaterial->textureBump.length )
	607	{
556	608	mat->AddProperty( &pCurrentMaterial->textureBump, AI_MATKEY_TEXTURE_HEIGHT(0));
	609	if (pCurrentMaterial->clamp[ObjFile::Material::TextureBumpType])
	610	{
	611	addTextureMappingModeProperty(mat, aiTextureType_HEIGHT);
	612	}
	613	}
	614
	615	if ( 0 != pCurrentMaterial->textureNormal.length )
	616	{
	617	mat->AddProperty( &pCurrentMaterial->textureNormal, AI_MATKEY_TEXTURE_NORMALS(0));
	618	if (pCurrentMaterial->clamp[ObjFile::Material::TextureNormalType])
	619	{
	620	addTextureMappingModeProperty(mat, aiTextureType_NORMALS);
	621	}
	622	}
	623
	624	if ( 0 != pCurrentMaterial->textureDisp.length )
	625	{
	626	mat->AddProperty( &pCurrentMaterial->textureDisp, AI_MATKEY_TEXTURE_DISPLACEMENT(0) );
	627	if (pCurrentMaterial->clamp[ObjFile::Material::TextureDispType])
	628	{
	629	addTextureMappingModeProperty(mat, aiTextureType_DISPLACEMENT);
	630	}
	631	}
557	632
558	633	if ( 0 != pCurrentMaterial->textureOpacity.length )
	634	{
559	635	mat->AddProperty( &pCurrentMaterial->textureOpacity, AI_MATKEY_TEXTURE_OPACITY(0));
	636	if (pCurrentMaterial->clamp[ObjFile::Material::TextureOpacityType])
	637	{
	638	addTextureMappingModeProperty(mat, aiTextureType_OPACITY);
	639	}
	640	}
560	641
561	642	if ( 0 != pCurrentMaterial->textureSpecularity.length )
	643	{
562	644	mat->AddProperty( &pCurrentMaterial->textureSpecularity, AI_MATKEY_TEXTURE_SHININESS(0));
	645	if (pCurrentMaterial->clamp[ObjFile::Material::TextureSpecularityType])
	646	{
	647	addTextureMappingModeProperty(mat, aiTextureType_SHININESS);
	648	}
	649	}
563	650
564	651	// Store material property info in material array in scene
565	652	pScene->mMaterials[ pScene->mNumMaterials ] = mat;

580	667
581	668	// Assign parent to child
582	669	pChild->mParent = pParent;
583		size_t sNumChildren = 0;
584		(void)sNumChildren; // remove warning on release build
585	670
586	671	// If already children was assigned to the parent node, store them in a
587	672	std::vector<aiNode*> temp;
588	673	if (pParent->mChildren != NULL)
589	674	{
590		sNumChildren = pParent->mNumChildren;
591		ai_assert( 0 != sNumChildren );
	675	ai_assert( 0 != pParent->mNumChildren );
592	676	for (size_t index = 0; index < pParent->mNumChildren; index++)
593	677	{
594	678	temp.push_back(pParent->mChildren [ index ] );

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code/ObjFileImporter.h less more

76	76
77	77	private:
78	78
79		//! \brief Appends the supported extention.
	79	//! \brief Appends the supported extension.
80	80	const aiImporterDesc* GetInfo () const;
81	81
82	82	//! \brief File import implementation.

86	86	void CreateDataFromImport(const ObjFile::Model* pModel, aiScene* pScene);
87	87
88	88	//! \brief Creates all nodes stored in imported content.
89		aiNode createNodes(const ObjFile::Model pModel, const ObjFile::Object* pData, unsigned int uiMeshIndex,
	89	aiNode createNodes(const ObjFile::Model pModel, const ObjFile::Object* pData,
90	90	aiNode pParent, aiScene pScene, std::vector<aiMesh*> &MeshArray);
91	91
92	92	//! \brief Creates topology data like faces and meshes for the geometry.

102	102
103	103	//! \brief Material creation.
104	104	void createMaterials(const ObjFile::Model* pModel, aiScene* pScene);
	105	void addTextureMappingModeProperty(aiMaterial* mat, aiTextureType type, int clampMode = 1);
105	106
106		//! \brief Appends a child node to a parentnode and updates the datastructures.
	107	//! \brief Appends a child node to a parent node and updates the data structures.
107	108	void appendChildToParentNode(aiNode pParent, aiNode pChild);
108
109		//! \brief TODO!
110		void createAnimations();
111	109
112	110	private:
113	111	//! Data buffer
114	112	std::vector<char> m_Buffer;
115	113	//! Pointer to root object instance
116	114	ObjFile::Object *m_pRootObject;
117		//! Absolute pathname of model in filesystem
	115	//! Absolute pathname of model in file system
118	116	std::string m_strAbsPath;
119	117	};
120	118

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code/ObjFileMtlImporter.cpp less more

48	48
49	49	namespace Assimp {
50	50
	51	// Material specific token
	52	static const std::string DiffuseTexture = "map_kd";
	53	static const std::string AmbientTexture = "map_ka";
	54	static const std::string SpecularTexture = "map_ks";
	55	static const std::string OpacityTexture = "map_d";
	56	static const std::string BumpTexture1 = "map_bump";
	57	static const std::string BumpTexture2 = "map_Bump";
	58	static const std::string BumpTexture3 = "bump";
	59	static const std::string NormalTexture = "map_Kn";
	60	static const std::string DisplacementTexture = "disp";
	61	static const std::string SpecularityTexture = "map_ns";
	62
	63	// texture option specific token
	64	static const std::string BlendUOption = "-blendu";
	65	static const std::string BlendVOption = "-blendv";
	66	static const std::string BoostOption = "-boost";
	67	static const std::string ModifyMapOption = "-mm";
	68	static const std::string OffsetOption = "-o";
	69	static const std::string ScaleOption = "-s";
	70	static const std::string TurbulenceOption = "-t";
	71	static const std::string ResolutionOption = "-texres";
	72	static const std::string ClampOption = "-clamp";
	73	static const std::string BumpOption = "-bm";
	74	static const std::string ChannelOption = "-imfchan";
	75	static const std::string TypeOption = "-type";
	76
	77
	78
51	79	// -------------------------------------------------------------------
52	80	// Constructor
53	81	ObjFileMtlImporter::ObjFileMtlImporter( std::vector<char> &buffer,

116	144	{
117	145	++m_DataIt;
118	146	getColorRGBA( &m_pModel->m_pCurrentMaterial->specular );
	147	}
	148	else if (*m_DataIt == 'e')
	149	{
	150	++m_DataIt;
	151	getColorRGBA( &m_pModel->m_pCurrentMaterial->emissive );
119	152	}
120	153	m_DataIt = skipLine<DataArrayIt>( m_DataIt, m_DataItEnd, m_uiLine );
121	154	}

248	281
249	282	// -------------------------------------------------------------------
250	283	// Gets a texture name from data.
251		void ObjFileMtlImporter::getTexture()
252		{
253		aiString *out = NULL;
254
255		// FIXME: just a quick'n'dirty hack, consider cleanup later
256
257		// Diffuse texture
258		if (!ASSIMP_strincmp(&(*m_DataIt),"map_kd",6))
	284	void ObjFileMtlImporter::getTexture() {
	285	aiString *out( NULL );
	286	int clampIndex = -1;
	287
	288	const char pPtr( &(m_DataIt) );
	289	if ( !ASSIMP_strincmp( pPtr, DiffuseTexture.c_str(), DiffuseTexture.size() ) ) {
	290	// Diffuse texture
259	291	out = & m_pModel->m_pCurrentMaterial->texture;
260
261		// Ambient texture
262		else if (!ASSIMP_strincmp(&(*m_DataIt),"map_ka",6))
	292	clampIndex = ObjFile::Material::TextureDiffuseType;
	293	} else if ( !ASSIMP_strincmp( pPtr,AmbientTexture.c_str(),AmbientTexture.size() ) ) {
	294	// Ambient texture
263	295	out = & m_pModel->m_pCurrentMaterial->textureAmbient;
264
265		// Specular texture
266		else if (!ASSIMP_strincmp(&(*m_DataIt),"map_ks",6))
	296	clampIndex = ObjFile::Material::TextureAmbientType;
	297	} else if (!ASSIMP_strincmp( pPtr, SpecularTexture.c_str(), SpecularTexture.size())) {
	298	// Specular texture
267	299	out = & m_pModel->m_pCurrentMaterial->textureSpecular;
268
269		// Opacity texture
270		else if (!ASSIMP_strincmp(&(*m_DataIt),"map_d",5))
	300	clampIndex = ObjFile::Material::TextureSpecularType;
	301	} else if ( !ASSIMP_strincmp( pPtr, OpacityTexture.c_str(), OpacityTexture.size() ) ) {
	302	// Opacity texture
271	303	out = & m_pModel->m_pCurrentMaterial->textureOpacity;
272
273		// Ambient texture
274		else if (!ASSIMP_strincmp(&(*m_DataIt),"map_ka",6))
	304	clampIndex = ObjFile::Material::TextureOpacityType;
	305	} else if (!ASSIMP_strincmp( pPtr,"map_ka",6)) {
	306	// Ambient texture
275	307	out = & m_pModel->m_pCurrentMaterial->textureAmbient;
276
277		// Bump texture
278		else if (!ASSIMP_strincmp(&(m_DataIt),"map_bump",8) \|\| !ASSIMP_strincmp(&(m_DataIt),"bump",4))
	308	clampIndex = ObjFile::Material::TextureAmbientType;
	309	} else if (!ASSIMP_strincmp(&(*m_DataIt),"map_emissive",6)) {
	310	// Emissive texture
	311	out = & m_pModel->m_pCurrentMaterial->textureEmissive;
	312	clampIndex = ObjFile::Material::TextureEmissiveType;
	313	} else if ( !ASSIMP_strincmp( pPtr, BumpTexture1.c_str(), BumpTexture1.size() ) \|\|
	314	!ASSIMP_strincmp( pPtr, BumpTexture2.c_str(), BumpTexture2.size() ) \|\|
	315	!ASSIMP_strincmp( pPtr, BumpTexture3.c_str(), BumpTexture3.size() ) ) {
	316	// Bump texture
279	317	out = & m_pModel->m_pCurrentMaterial->textureBump;
280
281		// Specularity scaling (glossiness)
282		else if (!ASSIMP_strincmp(&(*m_DataIt),"map_ns",6))
	318	clampIndex = ObjFile::Material::TextureBumpType;
	319	} else if (!ASSIMP_strincmp( pPtr,NormalTexture.c_str(), NormalTexture.size())) {
	320	// Normal map
	321	out = & m_pModel->m_pCurrentMaterial->textureNormal;
	322	clampIndex = ObjFile::Material::TextureNormalType;
	323	} else if (!ASSIMP_strincmp( pPtr, DisplacementTexture.c_str(), DisplacementTexture.size() ) ) {
	324	// Displacement texture
	325	out = &m_pModel->m_pCurrentMaterial->textureDisp;
	326	clampIndex = ObjFile::Material::TextureDispType;
	327	} else if (!ASSIMP_strincmp( pPtr, SpecularityTexture.c_str(),SpecularityTexture.size() ) ) {
	328	// Specularity scaling (glossiness)
283	329	out = & m_pModel->m_pCurrentMaterial->textureSpecularity;
284
285		else
286		{
	330	clampIndex = ObjFile::Material::TextureSpecularityType;
	331	} else {
287	332	DefaultLogger::get()->error("OBJ/MTL: Encountered unknown texture type");
288	333	return;
289	334	}
	335
	336	bool clamp = false;
	337	getTextureOption(clamp);
	338	m_pModel->m_pCurrentMaterial->clamp[clampIndex] = clamp;
290	339
291	340	std::string strTexture;
292	341	m_DataIt = getName<DataArrayIt>( m_DataIt, m_DataItEnd, strTexture );
293	342	out->Set( strTexture );
294	343	}
295	344
	345	/* /////////////////////////////////////////////////////////////////////////////
	346	* Texture Option
	347	* /////////////////////////////////////////////////////////////////////////////
	348	* According to http://en.wikipedia.org/wiki/Wavefront_.obj_file#Texture_options
	349	* Texture map statement can contains various texture option, for example:
	350	*
	351	* map_Ka -o 1 1 1 some.png
	352	* map_Kd -clamp on some.png
	353	*
	354	* So we need to parse and skip these options, and leave the last part which is
	355	* the url of image, otherwise we will get a wrong url like "-clamp on some.png".
	356	*
	357	* Because aiMaterial supports clamp option, so we also want to return it
	358	* /////////////////////////////////////////////////////////////////////////////
	359	*/
	360	void ObjFileMtlImporter::getTextureOption(bool &clamp)
	361	{
	362	m_DataIt = getNextToken<DataArrayIt>(m_DataIt, m_DataItEnd);
	363
	364	//If there is any more texture option
	365	while (!isEndOfBuffer(m_DataIt, m_DataItEnd) && *m_DataIt == '-')
	366	{
	367	const char pPtr( &(m_DataIt) );
	368	//skip option key and value
	369	int skipToken = 1;
	370
	371	if (!ASSIMP_strincmp(pPtr, ClampOption.c_str(), ClampOption.size()))
	372	{
	373	DataArrayIt it = getNextToken<DataArrayIt>(m_DataIt, m_DataItEnd);
	374	char value[3];
	375	CopyNextWord(it, m_DataItEnd, value, sizeof(value) / sizeof(*value));
	376	if (!ASSIMP_strincmp(value, "on", 2))
	377	{
	378	clamp = true;
	379	}
	380
	381	skipToken = 2;
	382	}
	383	else if ( !ASSIMP_strincmp(pPtr, BlendUOption.c_str(), BlendUOption.size())
	384	\|\| !ASSIMP_strincmp(pPtr, BlendVOption.c_str(), BlendVOption.size())
	385	\|\| !ASSIMP_strincmp(pPtr, BoostOption.c_str(), BoostOption.size())
	386	\|\| !ASSIMP_strincmp(pPtr, ResolutionOption.c_str(), ResolutionOption.size())
	387	\|\| !ASSIMP_strincmp(pPtr, BumpOption.c_str(), BumpOption.size())
	388	\|\| !ASSIMP_strincmp(pPtr, ChannelOption.c_str(), ChannelOption.size())
	389	\|\| !ASSIMP_strincmp(pPtr, TypeOption.c_str(), TypeOption.size()) )
	390	{
	391	skipToken = 2;
	392	}
	393	else if (!ASSIMP_strincmp(pPtr, ModifyMapOption.c_str(), ModifyMapOption.size()))
	394	{
	395	skipToken = 3;
	396	}
	397	else if ( !ASSIMP_strincmp(pPtr, OffsetOption.c_str(), OffsetOption.size())
	398	\|\| !ASSIMP_strincmp(pPtr, ScaleOption.c_str(), ScaleOption.size())
	399	\|\| !ASSIMP_strincmp(pPtr, TurbulenceOption.c_str(), TurbulenceOption.size())
	400	)
	401	{
	402	skipToken = 4;
	403	}
	404
	405	for (int i = 0; i < skipToken; ++i)
	406	{
	407	m_DataIt = getNextToken<DataArrayIt>(m_DataIt, m_DataItEnd);
	408	}
	409	}
	410	}
	411
296	412	// -------------------------------------------------------------------
297	413
298	414	} // Namespace Assimp

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91	91	void createMaterial();
92	92	/// Get texture name from loaded data.
93	93	void getTexture();
	94	void getTextureOption(bool &clamp);
94	95
95	96	private:
96	97	//! Absolute pathname

+122

-49

code/ObjFileParser.cpp less more

49	49	#include "../include/assimp/types.h"
50	50	#include "DefaultIOSystem.h"
51	51
52		namespace Assimp
53		{
54
55		// -------------------------------------------------------------------
	52	namespace Assimp {
	53
56	54	const std::string ObjFileParser::DEFAULT_MATERIAL = AI_DEFAULT_MATERIAL_NAME;
57	55
58	56	// -------------------------------------------------------------------

70	68	m_pModel = new ObjFile::Model();
71	69	m_pModel->m_ModelName = strModelName;
72	70
	71	// create default material and store it
73	72	m_pModel->m_pDefaultMaterial = new ObjFile::Material();
74	73	m_pModel->m_pDefaultMaterial->MaterialName.Set( DEFAULT_MATERIAL );
75		m_pModel->m_MaterialLib.push_back( DEFAULT_MATERIAL );
	74	m_pModel->m_MaterialLib.push_back( DEFAULT_MATERIAL );
76	75	m_pModel->m_MaterialMap[ DEFAULT_MATERIAL ] = m_pModel->m_pDefaultMaterial;
77	76
78	77	// Start parsing the file

83	82	// Destructor
84	83	ObjFileParser::~ObjFileParser()
85	84	{
86		/*delete m_pModel->m_pDefaultMaterial;
87		m_pModel->m_pDefaultMaterial = NULL;*/
88
89	85	delete m_pModel;
90	86	m_pModel = NULL;
91	87	}

111	107	case 'v': // Parse a vertex texture coordinate
112	108	{
113	109	++m_DataIt;
114		if (*m_DataIt == ' ')
115		{
116		// Read in vertex definition
	110	if (m_DataIt == ' ' \|\| m_DataIt == '\t') {
	111	// read in vertex definition
117	112	getVector3(m_pModel->m_Vertices);
118		}
119		else if (*m_DataIt == 't')
120		{
121		// Read in texture coordinate (2D)
122		++m_DataIt;
123		getVector2(m_pModel->m_TextureCoord);
124		}
125		else if (*m_DataIt == 'n')
126		{
	113	} else if (*m_DataIt == 't') {
	114	// read in texture coordinate ( 2D or 3D )
	115	++m_DataIt;
	116	getVector( m_pModel->m_TextureCoord );
	117	} else if (*m_DataIt == 'n') {
127	118	// Read in normal vector definition
128	119	++m_DataIt;
129	120	getVector3( m_pModel->m_Normals );

152	143	}
153	144	break;
154	145
155		case 'm': // Parse a material library
156		{
157		getMaterialLib();
	146	case 'm': // Parse a material library or merging group ('mg')
	147	{
	148	if (*(m_DataIt + 1) == 'g')
	149	getGroupNumberAndResolution();
	150	else
	151	getMaterialLib();
158	152	}
159	153	break;
160	154

199	193	break;
200	194	++m_DataIt;
201	195	}
	196
	197	ai_assert(index < length);
202	198	pBuffer[index] = '\0';
203	199	}
204	200

206	202	// Copy the next line into a temporary buffer
207	203	void ObjFileParser::copyNextLine(char *pBuffer, size_t length)
208	204	{
209		size_t index = 0;
210		while (m_DataIt != m_DataItEnd)
211		{
212		if (m_DataIt == '\n' \|\| m_DataIt == '\r' \|\| index == length-1)
213		break;
214
215		pBuffer[ index ] = *m_DataIt;
216		++index;
217		++m_DataIt;
218		}
	205	size_t index = 0u;
	206
	207	// some OBJ files have line continuations using \ (such as in C++ et al)
	208	bool continuation = false;
	209	for (;m_DataIt != m_DataItEnd && index < length-1; ++m_DataIt)
	210	{
	211	const char c = *m_DataIt;
	212	if (c == '\\') {
	213	continuation = true;
	214	continue;
	215	}
	216
	217	if (c == '\n' \|\| c == '\r') {
	218	if(continuation) {
	219	pBuffer[ index++ ] = ' ';
	220	continue;
	221	}
	222	break;
	223	}
	224
	225	continuation = false;
	226	pBuffer[ index++ ] = c;
	227	}
	228	ai_assert(index < length);
219	229	pBuffer[ index ] = '\0';
220	230	}
221	231
222	232	// -------------------------------------------------------------------
	233	void ObjFileParser::getVector( std::vector<aiVector3D> &point3d_array ) {
	234	size_t numComponents( 0 );
	235	DataArrayIt tmp( m_DataIt );
	236	while( !IsLineEnd( *tmp ) ) {
	237	if( *tmp == ' ' ) {
	238	++numComponents;
	239	}
	240	tmp++;
	241	}
	242	float x, y, z;
	243	if( 2 == numComponents ) {
	244	copyNextWord( m_buffer, BUFFERSIZE );
	245	x = ( float ) fast_atof( m_buffer );
	246
	247	copyNextWord( m_buffer, BUFFERSIZE );
	248	y = ( float ) fast_atof( m_buffer );
	249	z = 0.0;
	250	} else if( 3 == numComponents ) {
	251	copyNextWord( m_buffer, BUFFERSIZE );
	252	x = ( float ) fast_atof( m_buffer );
	253
	254	copyNextWord( m_buffer, BUFFERSIZE );
	255	y = ( float ) fast_atof( m_buffer );
	256
	257	copyNextWord( m_buffer, BUFFERSIZE );
	258	z = ( float ) fast_atof( m_buffer );
	259	} else {
	260	ai_assert( !"Invalid number of components" );
	261	}
	262	point3d_array.push_back( aiVector3D( x, y, z ) );
	263	m_DataIt = skipLine<DataArrayIt>( m_DataIt, m_DataItEnd, m_uiLine );
	264	}
	265
	266	// -------------------------------------------------------------------
223	267	// Get values for a new 3D vector instance
224		void ObjFileParser::getVector3(std::vector<aiVector3D> &point3d_array)
225		{
	268	void ObjFileParser::getVector3(std::vector<aiVector3D> &point3d_array) {
226	269	float x, y, z;
227	270	copyNextWord(m_buffer, BUFFERSIZE);
228	271	x = (float) fast_atof(m_buffer);

230	273	copyNextWord(m_buffer, BUFFERSIZE);
231	274	y = (float) fast_atof(m_buffer);
232	275
233		copyNextWord(m_buffer, BUFFERSIZE);
234		z = (float) fast_atof(m_buffer);
	276	copyNextWord( m_buffer, BUFFERSIZE );
	277	z = ( float ) fast_atof( m_buffer );
235	278
236	279	point3d_array.push_back( aiVector3D( x, y, z ) );
237		//skipLine();
238	280	m_DataIt = skipLine<DataArrayIt>( m_DataIt, m_DataItEnd, m_uiLine );
239	281	}
240	282
241	283	// -------------------------------------------------------------------
242	284	// Get values for a new 2D vector instance
243		void ObjFileParser::getVector2( std::vector<aiVector2D> &point2d_array )
244		{
	285	void ObjFileParser::getVector2( std::vector<aiVector2D> &point2d_array ) {
245	286	float x, y;
246	287	copyNextWord(m_buffer, BUFFERSIZE);
247	288	x = (float) fast_atof(m_buffer);

273	314	std::vector<unsigned int> *pNormalID = new std::vector<unsigned int>;
274	315	bool hasNormal = false;
275	316
	317	const int vSize = m_pModel->m_Vertices.size();
	318	const int vtSize = m_pModel->m_TextureCoord.size();
	319	const int vnSize = m_pModel->m_Normals.size();
	320
276	321	const bool vt = (!m_pModel->m_TextureCoord.empty());
277	322	const bool vn = (!m_pModel->m_Normals.empty());
278	323	int iStep = 0, iPos = 0;

306	351	{
307	352	//OBJ USES 1 Base ARRAYS!!!!
308	353	const int iVal = atoi( pPtr );
	354
	355	// increment iStep position based off of the sign and # of digits
309	356	int tmp = iVal;
	357	if (iVal < 0)
	358	++iStep;
310	359	while ( ( tmp = tmp / 10 )!=0 )
311	360	++iStep;
312	361

324	373	else if ( 2 == iPos )
325	374	{
326	375	pNormalID->push_back( iVal-1 );
	376	hasNormal = true;
	377	}
	378	else
	379	{
	380	reportErrorTokenInFace();
	381	}
	382	}
	383	else if ( iVal < 0 )
	384	{
	385	// Store relatively index
	386	if ( 0 == iPos )
	387	{
	388	pIndices->push_back( vSize + iVal );
	389	}
	390	else if ( 1 == iPos )
	391	{
	392	pTexID->push_back( vtSize + iVal );
	393	}
	394	else if ( 2 == iPos )
	395	{
	396	pNormalID->push_back( vnSize + iVal );
327	397	hasNormal = true;
328	398	}
329	399	else

527	597	// Getter for a group name.
528	598	void ObjFileParser::getGroupName()
529	599	{
530		// Get next word from data buffer
531		m_DataIt = getNextToken<DataArrayIt>(m_DataIt, m_DataItEnd);
532		m_DataIt = getNextWord<DataArrayIt>(m_DataIt, m_DataItEnd);
	600	std::string strGroupName;
	601
	602	m_DataIt = getName<DataArrayIt>(m_DataIt, m_DataItEnd, strGroupName);
533	603	if ( isEndOfBuffer( m_DataIt, m_DataItEnd ) )
534	604	return;
535
536		// Store the group name in the group library
537		char pStart = &(m_DataIt);
538		while ( m_DataIt != m_DataItEnd && !isSeparator(*m_DataIt) )
539		m_DataIt++;
540		std::string strGroupName( pStart, &(*m_DataIt) );
541	605
542	606	// Change active group, if necessary
543	607	if ( m_pModel->m_strActiveGroup != strGroupName )

574	638	}
575	639
576	640	// -------------------------------------------------------------------
	641	// Not supported
	642	void ObjFileParser::getGroupNumberAndResolution()
	643	{
	644	// Not used
	645
	646	m_DataIt = skipLine<DataArrayIt>( m_DataIt, m_DataItEnd, m_uiLine );
	647	}
	648
	649	// -------------------------------------------------------------------
577	650	// Stores values for a new object instance, name will be used to
578	651	// identify it.
579	652	void ObjFileParser::getObjectName()

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36	36
37	37	----------------------------------------------------------------------
38	38	*/
39
40
41	39	#ifndef OBJ_FILEPARSER_H_INC
42	40	#define OBJ_FILEPARSER_H_INC
43	41

78	76	ObjFile::Model *GetModel() const;
79	77
80	78	private:
81		/// Parse the loadedfile
	79	/// Parse the loaded file
82	80	void parseFile();
83	81	/// Method to copy the new delimited word in the current line.
84	82	void copyNextWord(char *pBuffer, size_t length);
85	83	/// Method to copy the new line.
86	84	void copyNextLine(char *pBuffer, size_t length);
87		/// Stores the following 3d vector.
	85	/// Stores the vector
	86	void getVector( std::vector<aiVector3D> &point3d_array );
	87	/// Stores the following 3d vector.
88	88	void getVector3( std::vector<aiVector3D> &point3d_array );
89	89	/// Stores the following 3d vector.
90	90	void getVector2(std::vector<aiVector2D> &point2d_array);
91		/// Stores the following face.
	91	/// Stores the following face.
92	92	void getFace(aiPrimitiveType type);
93		void getMaterialDesc();
	93	/// Reads the material description.
	94	void getMaterialDesc();
94	95	/// Gets a comment.
95	96	void getComment();
96	97	/// Gets a a material library.
97	98	void getMaterialLib();
98	99	/// Creates a new material.
99	100	void getNewMaterial();
100		/// Gets the groupname from file.
	101	/// Gets the group name from file.
101	102	void getGroupName();
102	103	/// Gets the group number from file.
103	104	void getGroupNumber();
	105	/// Gets the group number and resolution from file.
	106	void getGroupNumberAndResolution();
104	107	/// Returns the index of the material. Is -1 if not material was found.
105	108	int getMaterialIndex( const std::string &strMaterialName );
106	109	/// Parse object name

-2

code/ObjTools.h less more

106	106	return pBuffer;
107	107	}
108	108
109		/** @brief Returns ponter a next token
	109	/** @brief Returns pointer a next token
110	110	* @param pBuffer Pointer to data buffer
111	111	* @param pEnd Pointer to end of buffer
112	112	* @return Pointer to next token

156	156	inline char_t getName( char_t it, char_t end, std::string &name )
157	157	{
158	158	name = "";
159		it = getNextToken<char_t>( it, end );
160	159	if ( isEndOfBuffer( it, end ) )
161	160	return end;
162	161

171	170	++it;
172	171
173	172	// Get name
	173	// if there is no name, and the previous char is a separator, come back to start
	174	while (&(*it) < pStart) {
	175	++it;
	176	}
174	177	std::string strName( pStart, &(*it) );
175	178	if ( strName.empty() )
176	179	return it;

+1110

-0

code/OgreBinarySerializer.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	#include "OgreBinarySerializer.h"
	41	#include "OgreXmlSerializer.h"
	42	#include "OgreParsingUtils.h"
	43
	44	#include "TinyFormatter.h"
	45
	46	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
	47
	48	// Define as 1 to get verbose logging.
	49	#define OGRE_BINARY_SERIALIZER_DEBUG 0
	50
	51	namespace Assimp
	52	{
	53	namespace Ogre
	54	{
	55
	56	const std::string MESH_VERSION_1_8 = "[MeshSerializer_v1.8]";
	57	const std::string SKELETON_VERSION_1_8 = "[Serializer_v1.80]";
	58	const std::string SKELETON_VERSION_1_1 = "[Serializer_v1.10]";
	59
	60	const unsigned short HEADER_CHUNK_ID = 0x1000;
	61
	62	const long MSTREAM_OVERHEAD_SIZE = sizeof(uint16_t) + sizeof(uint32_t);
	63	const long MSTREAM_BONE_SIZE_WITHOUT_SCALE = MSTREAM_OVERHEAD_SIZE + sizeof(unsigned short) + (sizeof(float) * 7);
	64	const long MSTREAM_KEYFRAME_SIZE_WITHOUT_SCALE = MSTREAM_OVERHEAD_SIZE + (sizeof(float) * 8);
	65
	66	template<>
	67	inline bool OgreBinarySerializer::Read<bool>()
	68	{
	69	return (m_reader->GetU1() > 0);
	70	}
	71
	72	template<>
	73	inline char OgreBinarySerializer::Read<char>()
	74	{
	75	return static_cast<char>(m_reader->GetU1());
	76	}
	77
	78	template<>
	79	inline uint8_t OgreBinarySerializer::Read<uint8_t>()
	80	{
	81	return m_reader->GetU1();
	82	}
	83
	84	template<>
	85	inline uint16_t OgreBinarySerializer::Read<uint16_t>()
	86	{
	87	return m_reader->GetU2();
	88	}
	89
	90	template<>
	91	inline uint32_t OgreBinarySerializer::Read<uint32_t>()
	92	{
	93	return m_reader->GetU4();
	94	}
	95
	96	template<>
	97	inline float OgreBinarySerializer::Read<float>()
	98	{
	99	return m_reader->GetF4();
	100	}
	101
	102	void OgreBinarySerializer::ReadBytes(char *dest, size_t numBytes)
	103	{
	104	ReadBytes(static_cast<void*>(dest), numBytes);
	105	}
	106
	107	void OgreBinarySerializer::ReadBytes(uint8_t *dest, size_t numBytes)
	108	{
	109	ReadBytes(static_cast<void*>(dest), numBytes);
	110	}
	111
	112	void OgreBinarySerializer::ReadBytes(void *dest, size_t numBytes)
	113	{
	114	m_reader->CopyAndAdvance(dest, numBytes);
	115	}
	116
	117	uint8_t *OgreBinarySerializer::ReadBytes(size_t numBytes)
	118	{
	119	uint8_t *bytes = new uint8_t[numBytes];
	120	ReadBytes(bytes, numBytes);
	121	return bytes;
	122	}
	123
	124	void OgreBinarySerializer::ReadVector(aiVector3D &vec)
	125	{
	126	m_reader->CopyAndAdvance(&vec.x, sizeof(float)*3);
	127	}
	128
	129	void OgreBinarySerializer::ReadQuaternion(aiQuaternion &quat)
	130	{
	131	float temp[4];
	132	m_reader->CopyAndAdvance(temp, sizeof(float)*4);
	133	quat.x = temp[0];
	134	quat.y = temp[1];
	135	quat.z = temp[2];
	136	quat.w = temp[3];
	137	}
	138
	139	bool OgreBinarySerializer::AtEnd() const
	140	{
	141	return (m_reader->GetRemainingSize() == 0);
	142	}
	143
	144	std::string OgreBinarySerializer::ReadString(size_t len)
	145	{
	146	std::string str;
	147	str.resize(len);
	148	ReadBytes(&str[0], len);
	149	return str;
	150	}
	151
	152	std::string OgreBinarySerializer::ReadLine()
	153	{
	154	std::string str;
	155	while(!AtEnd())
	156	{
	157	char c = Read<char>();
	158	if (c == '\n')
	159	break;
	160	str += c;
	161	}
	162	return str;
	163	}
	164
	165	uint16_t OgreBinarySerializer::ReadHeader(bool readLen)
	166	{
	167	uint16_t id = Read<uint16_t>();
	168	if (readLen)
	169	m_currentLen = Read<uint32_t>();
	170
	171	#if (OGRE_BINARY_SERIALIZER_DEBUG == 1)
	172	if (id != HEADER_CHUNK_ID)
	173	{
	174	DefaultLogger::get()->debug(Formatter::format() << (assetMode == AM_Mesh
	175	? MeshHeaderToString(static_cast<MeshChunkId>(id)) : SkeletonHeaderToString(static_cast<SkeletonChunkId>(id))));
	176	}
	177	#endif
	178
	179	return id;
	180	}
	181
	182	void OgreBinarySerializer::RollbackHeader()
	183	{
	184	m_reader->IncPtr(-MSTREAM_OVERHEAD_SIZE);
	185	}
	186
	187	void OgreBinarySerializer::SkipBytes(size_t numBytes)
	188	{
	189	#if (OGRE_BINARY_SERIALIZER_DEBUG == 1)
	190	DefaultLogger::get()->debug(Formatter::format() << "Skipping " << numBytes << " bytes");
	191	#endif
	192
	193	m_reader->IncPtr(numBytes);
	194	}
	195
	196	// Mesh
	197
	198	Mesh OgreBinarySerializer::ImportMesh(MemoryStreamReader stream)
	199	{
	200	OgreBinarySerializer serializer(stream, OgreBinarySerializer::AM_Mesh);
	201
	202	uint16_t id = serializer.ReadHeader(false);
	203	if (id != HEADER_CHUNK_ID) {
	204	throw DeadlyExportError("Invalid Ogre Mesh file header.");
	205	}
	206
	207	/// @todo Check what we can actually support.
	208	std::string version = serializer.ReadLine();
	209	if (version != MESH_VERSION_1_8)
	210	{
	211	throw DeadlyExportError(Formatter::format() << "Mesh version " << version << " not supported by this importer. Run OgreMeshUpgrader tool on the file and try again."
	212	<< " Supported versions: " << MESH_VERSION_1_8);
	213	}
	214
	215	Mesh *mesh = new Mesh();
	216	while (!serializer.AtEnd())
	217	{
	218	id = serializer.ReadHeader();
	219	switch(id)
	220	{
	221	case M_MESH:
	222	{
	223	serializer.ReadMesh(mesh);
	224	break;
	225	}
	226	}
	227	}
	228	return mesh;
	229	}
	230
	231	void OgreBinarySerializer::ReadMesh(Mesh *mesh)
	232	{
	233	mesh->hasSkeletalAnimations = Read<bool>();
	234
	235	DefaultLogger::get()->debug("Reading Mesh");
	236	DefaultLogger::get()->debug(Formatter::format() << " - Skeletal animations: " << (mesh->hasSkeletalAnimations ? "true" : "false"));
	237
	238	if (!AtEnd())
	239	{
	240	uint16_t id = ReadHeader();
	241	while (!AtEnd() &&
	242	(id == M_GEOMETRY \|\|
	243	id == M_SUBMESH \|\|
	244	id == M_MESH_SKELETON_LINK \|\|
	245	id == M_MESH_BONE_ASSIGNMENT \|\|
	246	id == M_MESH_LOD \|\|
	247	id == M_MESH_BOUNDS \|\|
	248	id == M_SUBMESH_NAME_TABLE \|\|
	249	id == M_EDGE_LISTS \|\|
	250	id == M_POSES \|\|
	251	id == M_ANIMATIONS \|\|
	252	id == M_TABLE_EXTREMES))
	253	{
	254	switch(id)
	255	{
	256	case M_GEOMETRY:
	257	{
	258	mesh->sharedVertexData = new VertexData();
	259	ReadGeometry(mesh->sharedVertexData);
	260	break;
	261	}
	262	case M_SUBMESH:
	263	{
	264	ReadSubMesh(mesh);
	265	break;
	266	}
	267	case M_MESH_SKELETON_LINK:
	268	{
	269	ReadMeshSkeletonLink(mesh);
	270	break;
	271	}
	272	case M_MESH_BONE_ASSIGNMENT:
	273	{
	274	ReadBoneAssignment(mesh->sharedVertexData);
	275	break;
	276	}
	277	case M_MESH_LOD:
	278	{
	279	ReadMeshLodInfo(mesh);
	280	break;
	281	}
	282	case M_MESH_BOUNDS:
	283	{
	284	ReadMeshBounds(mesh);
	285	break;
	286	}
	287	case M_SUBMESH_NAME_TABLE:
	288	{
	289	ReadSubMeshNames(mesh);
	290	break;
	291	}
	292	case M_EDGE_LISTS:
	293	{
	294	ReadEdgeList(mesh);
	295	break;
	296	}
	297	case M_POSES:
	298	{
	299	ReadPoses(mesh);
	300	break;
	301	}
	302	case M_ANIMATIONS:
	303	{
	304	ReadAnimations(mesh);
	305	break;
	306	}
	307	case M_TABLE_EXTREMES:
	308	{
	309	ReadMeshExtremes(mesh);
	310	break;
	311	}
	312	}
	313
	314	if (!AtEnd())
	315	id = ReadHeader();
	316	}
	317	if (!AtEnd())
	318	RollbackHeader();
	319	}
	320
	321	NormalizeBoneWeights(mesh->sharedVertexData);
	322	}
	323
	324	void OgreBinarySerializer::ReadMeshLodInfo(Mesh *mesh)
	325	{
	326	// Assimp does not acknowledge LOD levels as far as I can see it. This info is just skipped.
	327	// @todo Put this stuff to scene/mesh custom properties. If manual mesh the app can use the information.
	328	ReadLine(); // strategy name
	329	uint16_t numLods = Read<uint16_t>();
	330	bool manual = Read<bool>();
	331
	332	/// @note Main mesh is considered as LOD 0, start from index 1.
	333	for (size_t i=1; i<numLods; ++i)
	334	{
	335	uint16_t id = ReadHeader();
	336	if (id != M_MESH_LOD_USAGE) {
	337	throw DeadlyImportError("M_MESH_LOD does not contain a M_MESH_LOD_USAGE for each LOD level");
	338	}
	339
	340	m_reader->IncPtr(sizeof(float)); // user value
	341
	342	if (manual)
	343	{
	344	id = ReadHeader();
	345	if (id != M_MESH_LOD_MANUAL) {
	346	throw DeadlyImportError("Manual M_MESH_LOD_USAGE does not contain M_MESH_LOD_MANUAL");
	347	}
	348
	349	ReadLine(); // manual mesh name (ref to another mesh)
	350	}
	351	else
	352	{
	353	for(size_t si=0, silen=mesh->NumSubMeshes(); si<silen; ++si)
	354	{
	355	id = ReadHeader();
	356	if (id != M_MESH_LOD_GENERATED) {
	357	throw DeadlyImportError("Generated M_MESH_LOD_USAGE does not contain M_MESH_LOD_GENERATED");
	358	}
	359
	360	uint32_t indexCount = Read<uint32_t>();
	361	bool is32bit = Read<bool>();
	362
	363	if (indexCount > 0)
	364	{
	365	uint32_t len = indexCount * (is32bit ? sizeof(uint32_t) : sizeof(uint16_t));
	366	m_reader->IncPtr(len);
	367	}
	368	}
	369	}
	370	}
	371	}
	372
	373	void OgreBinarySerializer::ReadMeshSkeletonLink(Mesh *mesh)
	374	{
	375	mesh->skeletonRef = ReadLine();
	376	}
	377
	378	void OgreBinarySerializer::ReadMeshBounds(Mesh *mesh)
	379	{
	380	// Skip bounds, not compatible with Assimp.
	381	// 2x float vec3 + 1x float sphere radius
	382	SkipBytes(sizeof(float) * 7);
	383	}
	384
	385	void OgreBinarySerializer::ReadMeshExtremes(Mesh *mesh)
	386	{
	387	// Skip extremes, not compatible with Assimp.
	388	size_t numBytes = m_currentLen - MSTREAM_OVERHEAD_SIZE;
	389	SkipBytes(numBytes);
	390	}
	391
	392	void OgreBinarySerializer::ReadBoneAssignment(VertexData *dest)
	393	{
	394	if (!dest) {
	395	throw DeadlyImportError("Cannot read bone assignments, vertex data is null.");
	396	}
	397
	398	VertexBoneAssignment ba;
	399	ba.vertexIndex = Read<uint32_t>();
	400	ba.boneIndex = Read<uint16_t>();
	401	ba.weight = Read<float>();
	402
	403	dest->boneAssignments.push_back(ba);
	404	}
	405
	406	void OgreBinarySerializer::ReadSubMesh(Mesh *mesh)
	407	{
	408	uint16_t id = 0;
	409
	410	SubMesh *submesh = new SubMesh();
	411	submesh->materialRef = ReadLine();
	412	submesh->usesSharedVertexData = Read<bool>();
	413
	414	submesh->indexData->count = Read<uint32_t>();
	415	submesh->indexData->faceCount = static_cast<uint32_t>(submesh->indexData->count / 3);
	416	submesh->indexData->is32bit = Read<bool>();
	417
	418	DefaultLogger::get()->debug(Formatter::format() << "Reading SubMesh " << mesh->subMeshes.size());
	419	DefaultLogger::get()->debug(Formatter::format() << " - Material: '" << submesh->materialRef << "'");
	420	DefaultLogger::get()->debug(Formatter::format() << " - Uses shared geometry: " << (submesh->usesSharedVertexData ? "true" : "false"));
	421
	422	// Index buffer
	423	if (submesh->indexData->count > 0)
	424	{
	425	uint32_t numBytes = submesh->indexData->count * (submesh->indexData->is32bit ? sizeof(uint32_t) : sizeof(uint16_t));
	426	uint8_t *indexBuffer = ReadBytes(numBytes);
	427	submesh->indexData->buffer = MemoryStreamPtr(new Assimp::MemoryIOStream(indexBuffer, numBytes, true));
	428
	429	DefaultLogger::get()->debug(Formatter::format() << " - " << submesh->indexData->faceCount
	430	<< " faces from " << submesh->indexData->count << (submesh->indexData->is32bit ? " 32bit" : " 16bit")
	431	<< " indexes of " << numBytes << " bytes");
	432	}
	433
	434	// Vertex buffer if not referencing the shared geometry
	435	if (!submesh->usesSharedVertexData)
	436	{
	437	id = ReadHeader();
	438	if (id != M_GEOMETRY) {
	439	throw DeadlyImportError("M_SUBMESH does not contain M_GEOMETRY, but shader geometry is set to false");
	440	}
	441
	442	submesh->vertexData = new VertexData();
	443	ReadGeometry(submesh->vertexData);
	444	}
	445
	446	// Bone assignment, submesh operation and texture aliases
	447	if (!AtEnd())
	448	{
	449	id = ReadHeader();
	450	while (!AtEnd() &&
	451	(id == M_SUBMESH_OPERATION \|\|
	452	id == M_SUBMESH_BONE_ASSIGNMENT \|\|
	453	id == M_SUBMESH_TEXTURE_ALIAS))
	454	{
	455	switch(id)
	456	{
	457	case M_SUBMESH_OPERATION:
	458	{
	459	ReadSubMeshOperation(submesh);
	460	break;
	461	}
	462	case M_SUBMESH_BONE_ASSIGNMENT:
	463	{
	464	ReadBoneAssignment(submesh->vertexData);
	465	break;
	466	}
	467	case M_SUBMESH_TEXTURE_ALIAS:
	468	{
	469	ReadSubMeshTextureAlias(submesh);
	470	break;
	471	}
	472	}
	473
	474	if (!AtEnd())
	475	id = ReadHeader();
	476	}
	477	if (!AtEnd())
	478	RollbackHeader();
	479	}
	480
	481	NormalizeBoneWeights(submesh->vertexData);
	482
	483	submesh->index = mesh->subMeshes.size();
	484	mesh->subMeshes.push_back(submesh);
	485	}
	486
	487	void OgreBinarySerializer::NormalizeBoneWeights(VertexData *vertexData) const
	488	{
	489	if (!vertexData \|\| vertexData->boneAssignments.empty())
	490	return;
	491
	492	std::set<uint32_t> influencedVertices;
	493	for (VertexBoneAssignmentList::const_iterator baIter=vertexData->boneAssignments.begin(), baEnd=vertexData->boneAssignments.end(); baIter != baEnd; ++baIter) {
	494	influencedVertices.insert(baIter->vertexIndex);
	495	}
	496
	497	/** Normalize bone weights.
	498	Some exporters wont care if the sum of all bone weights
	499	for a single vertex equals 1 or not, so validate here. */
	500	const float epsilon = 0.05f;
	501	for(std::set<uint32_t>::const_iterator iter=influencedVertices.begin(), end=influencedVertices.end(); iter != end; ++iter)
	502	{
	503	const uint32_t vertexIndex = (*iter);
	504
	505	float sum = 0.0f;
	506	for (VertexBoneAssignmentList::const_iterator baIter=vertexData->boneAssignments.begin(), baEnd=vertexData->boneAssignments.end(); baIter != baEnd; ++baIter)
	507	{
	508	if (baIter->vertexIndex == vertexIndex)
	509	sum += baIter->weight;
	510	}
	511	if ((sum < (1.0f - epsilon)) \|\| (sum > (1.0f + epsilon)))
	512	{
	513	for (VertexBoneAssignmentList::iterator baIter=vertexData->boneAssignments.begin(), baEnd=vertexData->boneAssignments.end(); baIter != baEnd; ++baIter)
	514	{
	515	if (baIter->vertexIndex == vertexIndex)
	516	baIter->weight /= sum;
	517	}
	518	}
	519	}
	520	}
	521
	522	void OgreBinarySerializer::ReadSubMeshOperation(SubMesh *submesh)
	523	{
	524	submesh->operationType = static_cast<SubMesh::OperationType>(Read<uint16_t>());
	525	}
	526
	527	void OgreBinarySerializer::ReadSubMeshTextureAlias(SubMesh *submesh)
	528	{
	529	submesh->textureAliasName = ReadLine();
	530	submesh->textureAliasRef = ReadLine();
	531	}
	532
	533	void OgreBinarySerializer::ReadSubMeshNames(Mesh *mesh)
	534	{
	535	uint16_t id = 0;
	536	uint16_t submeshIndex = 0;
	537
	538	if (!AtEnd())
	539	{
	540	id = ReadHeader();
	541	while (!AtEnd() && id == M_SUBMESH_NAME_TABLE_ELEMENT)
	542	{
	543	uint16_t submeshIndex = Read<uint16_t>();
	544	SubMesh *submesh = mesh->GetSubMesh(submeshIndex);
	545	if (!submesh) {
	546	throw DeadlyImportError(Formatter::format() << "Ogre Mesh does not include submesh " << submeshIndex << " referenced in M_SUBMESH_NAME_TABLE_ELEMENT. Invalid mesh file.");
	547	}
	548
	549	submesh->name = ReadLine();
	550	DefaultLogger::get()->debug(Formatter::format() << " - SubMesh " << submesh->index << " name '" << submesh->name << "'");
	551
	552	if (!AtEnd())
	553	id = ReadHeader();
	554	}
	555	if (!AtEnd())
	556	RollbackHeader();
	557	}
	558	}
	559
	560	void OgreBinarySerializer::ReadGeometry(VertexData *dest)
	561	{
	562	dest->count = Read<uint32_t>();
	563
	564	DefaultLogger::get()->debug(Formatter::format() << " - Reading geometry of " << dest->count << " vertices");
	565
	566	if (!AtEnd())
	567	{
	568	uint16_t id = ReadHeader();
	569	while (!AtEnd() &&
	570	(id == M_GEOMETRY_VERTEX_DECLARATION \|\|
	571	id == M_GEOMETRY_VERTEX_BUFFER))
	572	{
	573	switch(id)
	574	{
	575	case M_GEOMETRY_VERTEX_DECLARATION:
	576	{
	577	ReadGeometryVertexDeclaration(dest);
	578	break;
	579	}
	580	case M_GEOMETRY_VERTEX_BUFFER:
	581	{
	582	ReadGeometryVertexBuffer(dest);
	583	break;
	584	}
	585	}
	586
	587	if (!AtEnd())
	588	id = ReadHeader();
	589	}
	590	if (!AtEnd())
	591	RollbackHeader();
	592	}
	593	}
	594
	595	void OgreBinarySerializer::ReadGeometryVertexDeclaration(VertexData *dest)
	596	{
	597	if (!AtEnd())
	598	{
	599	uint16_t id = ReadHeader();
	600	while (!AtEnd() && id == M_GEOMETRY_VERTEX_ELEMENT)
	601	{
	602	ReadGeometryVertexElement(dest);
	603
	604	if (!AtEnd())
	605	id = ReadHeader();
	606	}
	607	if (!AtEnd())
	608	RollbackHeader();
	609	}
	610	}
	611
	612	void OgreBinarySerializer::ReadGeometryVertexElement(VertexData *dest)
	613	{
	614	VertexElement element;
	615	element.source = Read<uint16_t>();
	616	element.type = static_cast<VertexElement::Type>(Read<uint16_t>());
	617	element.semantic = static_cast<VertexElement::Semantic>(Read<uint16_t>());
	618	element.offset = Read<uint16_t>();
	619	element.index = Read<uint16_t>();
	620
	621	DefaultLogger::get()->debug(Formatter::format() << " - Vertex element " << element.SemanticToString() << " of type "
	622	<< element.TypeToString() << " index=" << element.index << " source=" << element.source);
	623
	624	dest->vertexElements.push_back(element);
	625	}
	626
	627	void OgreBinarySerializer::ReadGeometryVertexBuffer(VertexData *dest)
	628	{
	629	uint16_t bindIndex = Read<uint16_t>();
	630	uint16_t vertexSize = Read<uint16_t>();
	631
	632	uint16_t id = ReadHeader();
	633	if (id != M_GEOMETRY_VERTEX_BUFFER_DATA)
	634	throw DeadlyImportError("M_GEOMETRY_VERTEX_BUFFER_DATA not found in M_GEOMETRY_VERTEX_BUFFER");
	635
	636	if (dest->VertexSize(bindIndex) != vertexSize)
	637	throw DeadlyImportError("Vertex buffer size does not agree with vertex declaration in M_GEOMETRY_VERTEX_BUFFER");
	638
	639	size_t numBytes = dest->count * vertexSize;
	640	uint8_t *vertexBuffer = ReadBytes(numBytes);
	641	dest->vertexBindings[bindIndex] = MemoryStreamPtr(new Assimp::MemoryIOStream(vertexBuffer, numBytes, true));
	642
	643	DefaultLogger::get()->debug(Formatter::format() << " - Read vertex buffer for source " << bindIndex << " of " << numBytes << " bytes");
	644	}
	645
	646	void OgreBinarySerializer::ReadEdgeList(Mesh *mesh)
	647	{
	648	// Assimp does not acknowledge LOD levels as far as I can see it. This info is just skipped.
	649
	650	if (!AtEnd())
	651	{
	652	uint16_t id = ReadHeader();
	653	while (!AtEnd() && id == M_EDGE_LIST_LOD)
	654	{
	655	m_reader->IncPtr(sizeof(uint16_t)); // lod index
	656	bool manual = Read<bool>();
	657
	658	if (!manual)
	659	{
	660	m_reader->IncPtr(sizeof(uint8_t));
	661	uint32_t numTriangles = Read<uint32_t>();
	662	uint32_t numEdgeGroups = Read<uint32_t>();
	663
	664	size_t skipBytes = (sizeof(uint32_t) * 8 + sizeof(float) * 4) * numTriangles;
	665	m_reader->IncPtr(skipBytes);
	666
	667	for (size_t i=0; i<numEdgeGroups; ++i)
	668	{
	669	uint16_t id = ReadHeader();
	670	if (id != M_EDGE_GROUP)
	671	throw DeadlyImportError("M_EDGE_GROUP not found in M_EDGE_LIST_LOD");
	672
	673	m_reader->IncPtr(sizeof(uint32_t) * 3);
	674	uint32_t numEdges = Read<uint32_t>();
	675	for (size_t j=0; j<numEdges; ++j)
	676	{
	677	m_reader->IncPtr(sizeof(uint32_t) * 6 + sizeof(uint8_t));
	678	}
	679	}
	680	}
	681
	682	if (!AtEnd())
	683	id = ReadHeader();
	684	}
	685	if (!AtEnd())
	686	RollbackHeader();
	687	}
	688	}
	689
	690	void OgreBinarySerializer::ReadPoses(Mesh *mesh)
	691	{
	692	if (!AtEnd())
	693	{
	694	uint16_t id = ReadHeader();
	695	while (!AtEnd() && id == M_POSE)
	696	{
	697	Pose *pose = new Pose();
	698	pose->name = ReadLine();
	699	pose->target = Read<uint16_t>();
	700	pose->hasNormals = Read<bool>();
	701
	702	ReadPoseVertices(pose);
	703
	704	mesh->poses.push_back(pose);
	705
	706	if (!AtEnd())
	707	id = ReadHeader();
	708	}
	709	if (!AtEnd())
	710	RollbackHeader();
	711	}
	712	}
	713
	714	void OgreBinarySerializer::ReadPoseVertices(Pose *pose)
	715	{
	716	if (!AtEnd())
	717	{
	718	uint16_t id = ReadHeader();
	719	while (!AtEnd() && id == M_POSE_VERTEX)
	720	{
	721	Pose::Vertex v;
	722	v.index = Read<uint32_t>();
	723	ReadVector(v.offset);
	724	if (pose->hasNormals)
	725	ReadVector(v.normal);
	726
	727	pose->vertices[v.index] = v;
	728
	729	if (!AtEnd())
	730	id = ReadHeader();
	731	}
	732	if (!AtEnd())
	733	RollbackHeader();
	734	}
	735	}
	736
	737	void OgreBinarySerializer::ReadAnimations(Mesh *mesh)
	738	{
	739	if (!AtEnd())
	740	{
	741	uint16_t id = ReadHeader();
	742	while (!AtEnd() && id == M_ANIMATION)
	743	{
	744	Animation *anim = new Animation(mesh);
	745	anim->name = ReadLine();
	746	anim->length = Read<float>();
	747
	748	ReadAnimation(anim);
	749
	750	mesh->animations.push_back(anim);
	751
	752	if (!AtEnd())
	753	id = ReadHeader();
	754	}
	755	if (!AtEnd())
	756	RollbackHeader();
	757	}
	758	}
	759
	760	void OgreBinarySerializer::ReadAnimation(Animation *anim)
	761	{
	762	if (!AtEnd())
	763	{
	764	uint16_t id = ReadHeader();
	765	if (id == M_ANIMATION_BASEINFO)
	766	{
	767	anim->baseName = ReadLine();
	768	anim->baseTime = Read<float>();
	769
	770	// Advance to first track
	771	id = ReadHeader();
	772	}
	773
	774	while (!AtEnd() && id == M_ANIMATION_TRACK)
	775	{
	776	VertexAnimationTrack track;
	777	track.type = static_cast<VertexAnimationTrack::Type>(Read<uint16_t>());
	778	track.target = Read<uint16_t>();
	779
	780	ReadAnimationKeyFrames(anim, &track);
	781
	782	anim->tracks.push_back(track);
	783
	784	if (!AtEnd())
	785	id = ReadHeader();
	786	}
	787	if (!AtEnd())
	788	RollbackHeader();
	789	}
	790	}
	791
	792	void OgreBinarySerializer::ReadAnimationKeyFrames(Animation anim, VertexAnimationTrack track)
	793	{
	794	if (!AtEnd())
	795	{
	796	uint16_t id = ReadHeader();
	797	while (!AtEnd() &&
	798	(id == M_ANIMATION_MORPH_KEYFRAME \|\|
	799	id == M_ANIMATION_POSE_KEYFRAME))
	800	{
	801	if (id == M_ANIMATION_MORPH_KEYFRAME)
	802	{
	803	MorphKeyFrame kf;
	804	kf.timePos = Read<float>();
	805	bool hasNormals = Read<bool>();
	806
	807	size_t vertexCount = anim->AssociatedVertexData(track)->count;
	808	size_t vertexSize = sizeof(float) * (hasNormals ? 6 : 3);
	809	size_t numBytes = vertexCount * vertexSize;
	810
	811	uint8_t *morphBuffer = ReadBytes(numBytes);
	812	kf.buffer = MemoryStreamPtr(new Assimp::MemoryIOStream(morphBuffer, numBytes, true));
	813
	814	track->morphKeyFrames.push_back(kf);
	815	}
	816	else if (id == M_ANIMATION_POSE_KEYFRAME)
	817	{
	818	PoseKeyFrame kf;
	819	kf.timePos = Read<float>();
	820
	821	if (!AtEnd())
	822	{
	823	id = ReadHeader();
	824	while (!AtEnd() && id == M_ANIMATION_POSE_REF)
	825	{
	826	PoseRef pr;
	827	pr.index = Read<uint16_t>();
	828	pr.influence = Read<float>();
	829	kf.references.push_back(pr);
	830
	831	if (!AtEnd())
	832	id = ReadHeader();
	833	}
	834	if (!AtEnd())
	835	RollbackHeader();
	836	}
	837
	838	track->poseKeyFrames.push_back(kf);
	839	}
	840
	841	if (!AtEnd())
	842	id = ReadHeader();
	843	}
	844	if (!AtEnd())
	845	RollbackHeader();
	846	}
	847	}
	848
	849	// Skeleton
	850
	851	bool OgreBinarySerializer::ImportSkeleton(Assimp::IOSystem pIOHandler, Mesh mesh)
	852	{
	853	if (!mesh \|\| mesh->skeletonRef.empty())
	854	return false;
	855
	856	// Highly unusual to see in read world cases but support
	857	// binary mesh referencing a XML skeleton file.
	858	if (EndsWith(mesh->skeletonRef, ".skeleton.xml", false))
	859	{
	860	OgreXmlSerializer::ImportSkeleton(pIOHandler, mesh);
	861	return false;
	862	}
	863
	864	MemoryStreamReaderPtr reader = OpenReader(pIOHandler, mesh->skeletonRef);
	865
	866	Skeleton *skeleton = new Skeleton();
	867	OgreBinarySerializer serializer(reader.get(), OgreBinarySerializer::AM_Skeleton);
	868	serializer.ReadSkeleton(skeleton);
	869	mesh->skeleton = skeleton;
	870	return true;
	871	}
	872
	873	bool OgreBinarySerializer::ImportSkeleton(Assimp::IOSystem pIOHandler, MeshXml mesh)
	874	{
	875	if (!mesh \|\| mesh->skeletonRef.empty())
	876	return false;
	877
	878	MemoryStreamReaderPtr reader = OpenReader(pIOHandler, mesh->skeletonRef);
	879	if (!reader.get())
	880	return false;
	881
	882	Skeleton *skeleton = new Skeleton();
	883	OgreBinarySerializer serializer(reader.get(), OgreBinarySerializer::AM_Skeleton);
	884	serializer.ReadSkeleton(skeleton);
	885	mesh->skeleton = skeleton;
	886	return true;
	887	}
	888
	889	MemoryStreamReaderPtr OgreBinarySerializer::OpenReader(Assimp::IOSystem *pIOHandler, const std::string &filename)
	890	{
	891	if (!EndsWith(filename, ".skeleton", false))
	892	{
	893	DefaultLogger::get()->error("Imported Mesh is referencing to unsupported '" + filename + "' skeleton file.");
	894	return MemoryStreamReaderPtr();
	895	}
	896
	897	if (!pIOHandler->Exists(filename))
	898	{
	899	DefaultLogger::get()->error("Failed to find skeleton file '" + filename + "' that is referenced by imported Mesh.");
	900	return MemoryStreamReaderPtr();
	901	}
	902
	903	IOStream *f = pIOHandler->Open(filename, "rb");
	904	if (!f) {
	905	throw DeadlyImportError("Failed to open skeleton file " + filename);
	906	}
	907
	908	return MemoryStreamReaderPtr(new MemoryStreamReader(f));
	909	}
	910
	911	void OgreBinarySerializer::ReadSkeleton(Skeleton *skeleton)
	912	{
	913	uint16_t id = ReadHeader(false);
	914	if (id != HEADER_CHUNK_ID) {
	915	throw DeadlyExportError("Invalid Ogre Skeleton file header.");
	916	}
	917
	918	// This deserialization supports both versions of the skeleton spec
	919	std::string version = ReadLine();
	920	if (version != SKELETON_VERSION_1_8 && version != SKELETON_VERSION_1_1)
	921	{
	922	throw DeadlyExportError(Formatter::format() << "Skeleton version " << version << " not supported by this importer."
	923	<< " Supported versions: " << SKELETON_VERSION_1_8 << " and " << SKELETON_VERSION_1_1);
	924	}
	925
	926	DefaultLogger::get()->debug("Reading Skeleton");
	927
	928	bool firstBone = true;
	929	bool firstAnim = true;
	930
	931	while (!AtEnd())
	932	{
	933	id = ReadHeader();
	934	switch(id)
	935	{
	936	case SKELETON_BLENDMODE:
	937	{
	938	skeleton->blendMode = static_cast<Skeleton::BlendMode>(Read<uint16_t>());
	939	break;
	940	}
	941	case SKELETON_BONE:
	942	{
	943	if (firstBone)
	944	{
	945	DefaultLogger::get()->debug(" - Bones");
	946	firstBone = false;
	947	}
	948
	949	ReadBone(skeleton);
	950	break;
	951	}
	952	case SKELETON_BONE_PARENT:
	953	{
	954	ReadBoneParent(skeleton);
	955	break;
	956	}
	957	case SKELETON_ANIMATION:
	958	{
	959	if (firstAnim)
	960	{
	961	DefaultLogger::get()->debug(" - Animations");
	962	firstAnim = false;
	963	}
	964
	965	ReadSkeletonAnimation(skeleton);
	966	break;
	967	}
	968	case SKELETON_ANIMATION_LINK:
	969	{
	970	ReadSkeletonAnimationLink(skeleton);
	971	break;
	972	}
	973	}
	974	}
	975
	976	// Calculate bone matrices for root bones. Recursively calculates their children.
	977	for (size_t i=0, len=skeleton->bones.size(); i<len; ++i)
	978	{
	979	Bone *bone = skeleton->bones[i];
	980	if (!bone->IsParented())
	981	bone->CalculateWorldMatrixAndDefaultPose(skeleton);
	982	}
	983	}
	984
	985	void OgreBinarySerializer::ReadBone(Skeleton *skeleton)
	986	{
	987	Bone *bone = new Bone();
	988	bone->name = ReadLine();
	989	bone->id = Read<uint16_t>();
	990
	991	// Pos and rot
	992	ReadVector(bone->position);
	993	ReadQuaternion(bone->rotation);
	994
	995	// Scale (optional)
	996	if (m_currentLen > MSTREAM_BONE_SIZE_WITHOUT_SCALE)
	997	ReadVector(bone->scale);
	998
	999	// Bone indexes need to start from 0 and be contiguous
	1000	if (bone->id != skeleton->bones.size()) {
	1001	throw DeadlyImportError(Formatter::format() << "Ogre Skeleton bone indexes not contiguous. Error at bone index " << bone->id);
	1002	}
	1003
	1004	DefaultLogger::get()->debug(Formatter::format() << " " << bone->id << " " << bone->name);
	1005
	1006	skeleton->bones.push_back(bone);
	1007	}
	1008
	1009	void OgreBinarySerializer::ReadBoneParent(Skeleton *skeleton)
	1010	{
	1011	uint16_t childId = Read<uint16_t>();
	1012	uint16_t parentId = Read<uint16_t>();
	1013
	1014	Bone *child = skeleton->BoneById(childId);
	1015	Bone *parent = skeleton->BoneById(parentId);
	1016
	1017	if (child && parent)
	1018	parent->AddChild(child);
	1019	else
	1020	throw DeadlyImportError(Formatter::format() << "Failed to find bones for parenting: Child id " << childId << " for parent id " << parentId);
	1021	}
	1022
	1023	void OgreBinarySerializer::ReadSkeletonAnimation(Skeleton *skeleton)
	1024	{
	1025	Animation *anim = new Animation(skeleton);
	1026	anim->name = ReadLine();
	1027	anim->length = Read<float>();
	1028
	1029	if (!AtEnd())
	1030	{
	1031	uint16_t id = ReadHeader();
	1032	if (id == SKELETON_ANIMATION_BASEINFO)
	1033	{
	1034	anim->baseName = ReadLine();
	1035	anim->baseTime = Read<float>();
	1036
	1037	// Advance to first track
	1038	id = ReadHeader();
	1039	}
	1040
	1041	while (!AtEnd() && id == SKELETON_ANIMATION_TRACK)
	1042	{
	1043	ReadSkeletonAnimationTrack(skeleton, anim);
	1044
	1045	if (!AtEnd())
	1046	id = ReadHeader();
	1047	}
	1048	if (!AtEnd())
	1049	RollbackHeader();
	1050	}
	1051
	1052	skeleton->animations.push_back(anim);
	1053
	1054	DefaultLogger::get()->debug(Formatter::format() << " " << anim->name << " (" << anim->length << " sec, " << anim->tracks.size() << " tracks)");
	1055	}
	1056
	1057	void OgreBinarySerializer::ReadSkeletonAnimationTrack(Skeleton skeleton, Animation dest)
	1058	{
	1059	uint16_t boneId = Read<uint16_t>();
	1060	Bone *bone = dest->parentSkeleton->BoneById(boneId);
	1061	if (!bone) {
	1062	throw DeadlyImportError(Formatter::format() << "Cannot read animation track, target bone " << boneId << " not in target Skeleton");
	1063	}
	1064
	1065	VertexAnimationTrack track;
	1066	track.type = VertexAnimationTrack::VAT_TRANSFORM;
	1067	track.boneName = bone->name;
	1068
	1069	uint16_t id = ReadHeader();
	1070	while (!AtEnd() && id == SKELETON_ANIMATION_TRACK_KEYFRAME)
	1071	{
	1072	ReadSkeletonAnimationKeyFrame(&track);
	1073
	1074	if (!AtEnd())
	1075	id = ReadHeader();
	1076	}
	1077	if (!AtEnd())
	1078	RollbackHeader();
	1079
	1080	dest->tracks.push_back(track);
	1081	}
	1082
	1083	void OgreBinarySerializer::ReadSkeletonAnimationKeyFrame(VertexAnimationTrack *dest)
	1084	{
	1085	TransformKeyFrame keyframe;
	1086	keyframe.timePos = Read<float>();
	1087
	1088	// Rot and pos
	1089	ReadQuaternion(keyframe.rotation);
	1090	ReadVector(keyframe.position);
	1091
	1092	// Scale (optional)
	1093	if (m_currentLen > MSTREAM_KEYFRAME_SIZE_WITHOUT_SCALE)
	1094	ReadVector(keyframe.scale);
	1095
	1096	dest->transformKeyFrames.push_back(keyframe);
	1097	}
	1098
	1099	void OgreBinarySerializer::ReadSkeletonAnimationLink(Skeleton *skeleton)
	1100	{
	1101	// Skip bounds, not compatible with Assimp.
	1102	ReadLine(); // skeleton name
	1103	SkipBytes(sizeof(float) * 3); // scale
	1104	}
	1105
	1106	} // Ogre
	1107	} // Assimp
	1108
	1109	#endif // ASSIMP_BUILD_NO_OGRE_IMPORTER

+416

-0

code/OgreBinarySerializer.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	#ifndef AI_OGREBINARYSERIALIZER_H_INC
	41	#define AI_OGREBINARYSERIALIZER_H_INC
	42
	43	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
	44
	45	#include "OgreStructs.h"
	46
	47	namespace Assimp
	48	{
	49	namespace Ogre
	50	{
	51
	52	typedef Assimp::StreamReaderLE MemoryStreamReader;
	53	typedef boost::shared_ptr<MemoryStreamReader> MemoryStreamReaderPtr;
	54
	55	class OgreBinarySerializer
	56	{
	57	public:
	58	/// Imports mesh and returns the result.
	59	/** @note Fatal unrecoverable errors will throw a DeadlyImportError. */
	60	static Mesh ImportMesh(MemoryStreamReader reader);
	61
	62	/// Imports skeleton to @c mesh into Mesh::skeleton.
	63	/** If mesh does not have a skeleton reference or the skeleton file
	64	cannot be found it is not a fatal DeadlyImportError.
	65	@return If skeleton import was successful. */
	66	static bool ImportSkeleton(Assimp::IOSystem pIOHandler, Mesh mesh);
	67	static bool ImportSkeleton(Assimp::IOSystem pIOHandler, MeshXml mesh);
	68
	69	private:
	70	enum AssetMode
	71	{
	72	AM_Mesh,
	73	AM_Skeleton
	74	};
	75
	76	OgreBinarySerializer(MemoryStreamReader *reader, AssetMode mode) :
	77	m_reader(reader),
	78	m_currentLen(0),
	79	assetMode(mode)
	80	{
	81	}
	82
	83	static MemoryStreamReaderPtr OpenReader(Assimp::IOSystem *pIOHandler, const std::string &filename);
	84
	85	// Header
	86
	87	uint16_t ReadHeader(bool readLen = true);
	88	void RollbackHeader();
	89
	90	// Mesh
	91
	92	void ReadMesh(Mesh *mesh);
	93	void ReadMeshLodInfo(Mesh *mesh);
	94	void ReadMeshSkeletonLink(Mesh *mesh);
	95	void ReadMeshBounds(Mesh *mesh);
	96	void ReadMeshExtremes(Mesh *mesh);
	97
	98	void ReadSubMesh(Mesh *mesh);
	99	void ReadSubMeshNames(Mesh *mesh);
	100	void ReadSubMeshOperation(SubMesh *submesh);
	101	void ReadSubMeshTextureAlias(SubMesh *submesh);
	102
	103	void ReadBoneAssignment(VertexData *dest);
	104
	105	void ReadGeometry(VertexData *dest);
	106	void ReadGeometryVertexDeclaration(VertexData *dest);
	107	void ReadGeometryVertexElement(VertexData *dest);
	108	void ReadGeometryVertexBuffer(VertexData *dest);
	109
	110	void ReadEdgeList(Mesh *mesh);
	111	void ReadPoses(Mesh *mesh);
	112	void ReadPoseVertices(Pose *pose);
	113
	114	void ReadAnimations(Mesh *mesh);
	115	void ReadAnimation(Animation *anim);
	116	void ReadAnimationKeyFrames(Animation anim, VertexAnimationTrack track);
	117
	118	void NormalizeBoneWeights(VertexData *vertexData) const;
	119
	120	// Skeleton
	121
	122	void ReadSkeleton(Skeleton *skeleton);
	123
	124	void ReadBone(Skeleton *skeleton);
	125	void ReadBoneParent(Skeleton *skeleton);
	126
	127	void ReadSkeletonAnimation(Skeleton *skeleton);
	128	void ReadSkeletonAnimationTrack(Skeleton skeleton, Animation dest);
	129	void ReadSkeletonAnimationKeyFrame(VertexAnimationTrack *dest);
	130	void ReadSkeletonAnimationLink(Skeleton *skeleton);
	131
	132	// Reader utils
	133	bool AtEnd() const;
	134
	135	template<typename T>
	136	inline T Read();
	137
	138	void ReadBytes(char *dest, size_t numBytes);
	139	void ReadBytes(uint8_t *dest, size_t numBytes);
	140	void ReadBytes(void *dest, size_t numBytes);
	141	uint8_t *ReadBytes(size_t numBytes);
	142
	143	void ReadVector(aiVector3D &vec);
	144	void ReadQuaternion(aiQuaternion &quat);
	145
	146	std::string ReadString(size_t len);
	147	std::string ReadLine();
	148
	149	void SkipBytes(size_t numBytes);
	150
	151	uint32_t m_currentLen;
	152	MemoryStreamReader *m_reader;
	153
	154	AssetMode assetMode;
	155	};
	156
	157	enum MeshChunkId
	158	{
	159	M_HEADER = 0x1000,
	160	// char* version : Version number check
	161	M_MESH = 0x3000,
	162	// bool skeletallyAnimated // important flag which affects h/w buffer policies
	163	// Optional M_GEOMETRY chunk
	164	M_SUBMESH = 0x4000,
	165	// char* materialName
	166	// bool useSharedVertices
	167	// unsigned int indexCount
	168	// bool indexes32Bit
	169	// unsigned int* faceVertexIndices (indexCount)
	170	// OR
	171	// unsigned short* faceVertexIndices (indexCount)
	172	// M_GEOMETRY chunk (Optional: present only if useSharedVertices = false)
	173	M_SUBMESH_OPERATION = 0x4010, // optional, trilist assumed if missing
	174	// unsigned short operationType
	175	M_SUBMESH_BONE_ASSIGNMENT = 0x4100,
	176	// Optional bone weights (repeating section)
	177	// unsigned int vertexIndex;
	178	// unsigned short boneIndex;
	179	// float weight;
	180	// Optional chunk that matches a texture name to an alias
	181	// a texture alias is sent to the submesh material to use this texture name
	182	// instead of the one in the texture unit with a matching alias name
	183	M_SUBMESH_TEXTURE_ALIAS = 0x4200, // Repeating section
	184	// char* aliasName;
	185	// char* textureName;
	186
	187	M_GEOMETRY = 0x5000, // NB this chunk is embedded within M_MESH and M_SUBMESH
	188	// unsigned int vertexCount
	189	M_GEOMETRY_VERTEX_DECLARATION = 0x5100,
	190	M_GEOMETRY_VERTEX_ELEMENT = 0x5110, // Repeating section
	191	// unsigned short source; // buffer bind source
	192	// unsigned short type; // VertexElementType
	193	// unsigned short semantic; // VertexElementSemantic
	194	// unsigned short offset; // start offset in buffer in bytes
	195	// unsigned short index; // index of the semantic (for colours and texture coords)
	196	M_GEOMETRY_VERTEX_BUFFER = 0x5200, // Repeating section
	197	// unsigned short bindIndex; // Index to bind this buffer to
	198	// unsigned short vertexSize; // Per-vertex size, must agree with declaration at this index
	199	M_GEOMETRY_VERTEX_BUFFER_DATA = 0x5210,
	200	// raw buffer data
	201	M_MESH_SKELETON_LINK = 0x6000,
	202	// Optional link to skeleton
	203	// char* skeletonName : name of .skeleton to use
	204	M_MESH_BONE_ASSIGNMENT = 0x7000,
	205	// Optional bone weights (repeating section)
	206	// unsigned int vertexIndex;
	207	// unsigned short boneIndex;
	208	// float weight;
	209	M_MESH_LOD = 0x8000,
	210	// Optional LOD information
	211	// string strategyName;
	212	// unsigned short numLevels;
	213	// bool manual; (true for manual alternate meshes, false for generated)
	214	M_MESH_LOD_USAGE = 0x8100,
	215	// Repeating section, ordered in increasing depth
	216	// NB LOD 0 (full detail from 0 depth) is omitted
	217	// LOD value - this is a distance, a pixel count etc, based on strategy
	218	// float lodValue;
	219	M_MESH_LOD_MANUAL = 0x8110,
	220	// Required if M_MESH_LOD section manual = true
	221	// String manualMeshName;
	222	M_MESH_LOD_GENERATED = 0x8120,
	223	// Required if M_MESH_LOD section manual = false
	224	// Repeating section (1 per submesh)
	225	// unsigned int indexCount;
	226	// bool indexes32Bit
	227	// unsigned short* faceIndexes; (indexCount)
	228	// OR
	229	// unsigned int* faceIndexes; (indexCount)
	230	M_MESH_BOUNDS = 0x9000,
	231	// float minx, miny, minz
	232	// float maxx, maxy, maxz
	233	// float radius
	234
	235	// Added By DrEvil
	236	// optional chunk that contains a table of submesh indexes and the names of
	237	// the sub-meshes.
	238	M_SUBMESH_NAME_TABLE = 0xA000,
	239	// Subchunks of the name table. Each chunk contains an index & string
	240	M_SUBMESH_NAME_TABLE_ELEMENT = 0xA100,
	241	// short index
	242	// char* name
	243	// Optional chunk which stores precomputed edge data
	244	M_EDGE_LISTS = 0xB000,
	245	// Each LOD has a separate edge list
	246	M_EDGE_LIST_LOD = 0xB100,
	247	// unsigned short lodIndex
	248	// bool isManual // If manual, no edge data here, loaded from manual mesh
	249	// bool isClosed
	250	// unsigned long numTriangles
	251	// unsigned long numEdgeGroups
	252	// Triangle* triangleList
	253	// unsigned long indexSet
	254	// unsigned long vertexSet
	255	// unsigned long vertIndex[3]
	256	// unsigned long sharedVertIndex[3]
	257	// float normal[4]
	258
	259	M_EDGE_GROUP = 0xB110,
	260	// unsigned long vertexSet
	261	// unsigned long triStart
	262	// unsigned long triCount
	263	// unsigned long numEdges
	264	// Edge* edgeList
	265	// unsigned long triIndex[2]
	266	// unsigned long vertIndex[2]
	267	// unsigned long sharedVertIndex[2]
	268	// bool degenerate
	269	// Optional poses section, referred to by pose keyframes
	270	M_POSES = 0xC000,
	271	M_POSE = 0xC100,
	272	// char* name (may be blank)
	273	// unsigned short target // 0 for shared geometry,
	274	// 1+ for submesh index + 1
	275	// bool includesNormals [1.8+]
	276	M_POSE_VERTEX = 0xC111,
	277	// unsigned long vertexIndex
	278	// float xoffset, yoffset, zoffset
	279	// float xnormal, ynormal, znormal (optional, 1.8+)
	280	// Optional vertex animation chunk
	281	M_ANIMATIONS = 0xD000,
	282	M_ANIMATION = 0xD100,
	283	// char* name
	284	// float length
	285	M_ANIMATION_BASEINFO = 0xD105,
	286	// [Optional] base keyframe information (pose animation only)
	287	// char* baseAnimationName (blank for self)
	288	// float baseKeyFrameTime
	289	M_ANIMATION_TRACK = 0xD110,
	290	// unsigned short type // 1 == morph, 2 == pose
	291	// unsigned short target // 0 for shared geometry,
	292	// 1+ for submesh index + 1
	293	M_ANIMATION_MORPH_KEYFRAME = 0xD111,
	294	// float time
	295	// bool includesNormals [1.8+]
	296	// float x,y,z // repeat by number of vertices in original geometry
	297	M_ANIMATION_POSE_KEYFRAME = 0xD112,
	298	// float time
	299	M_ANIMATION_POSE_REF = 0xD113, // repeat for number of referenced poses
	300	// unsigned short poseIndex
	301	// float influence
	302	// Optional submesh extreme vertex list chink
	303	M_TABLE_EXTREMES = 0xE000,
	304	// unsigned short submesh_index;
	305	// float extremes [n_extremes][3];
	306	};
	307
	308	static std::string MeshHeaderToString(MeshChunkId id)
	309	{
	310	switch(id)
	311	{
	312	case M_HEADER: return "HEADER";
	313	case M_MESH: return "MESH";
	314	case M_SUBMESH: return "SUBMESH";
	315	case M_SUBMESH_OPERATION: return "SUBMESH_OPERATION";
	316	case M_SUBMESH_BONE_ASSIGNMENT: return "SUBMESH_BONE_ASSIGNMENT";
	317	case M_SUBMESH_TEXTURE_ALIAS: return "SUBMESH_TEXTURE_ALIAS";
	318	case M_GEOMETRY: return "GEOMETRY";
	319	case M_GEOMETRY_VERTEX_DECLARATION: return "GEOMETRY_VERTEX_DECLARATION";
	320	case M_GEOMETRY_VERTEX_ELEMENT: return "GEOMETRY_VERTEX_ELEMENT";
	321	case M_GEOMETRY_VERTEX_BUFFER: return "GEOMETRY_VERTEX_BUFFER";
	322	case M_GEOMETRY_VERTEX_BUFFER_DATA: return "GEOMETRY_VERTEX_BUFFER_DATA";
	323	case M_MESH_SKELETON_LINK: return "MESH_SKELETON_LINK";
	324	case M_MESH_BONE_ASSIGNMENT: return "MESH_BONE_ASSIGNMENT";
	325	case M_MESH_LOD: return "MESH_LOD";
	326	case M_MESH_LOD_USAGE: return "MESH_LOD_USAGE";
	327	case M_MESH_LOD_MANUAL: return "MESH_LOD_MANUAL";
	328	case M_MESH_LOD_GENERATED: return "MESH_LOD_GENERATED";
	329	case M_MESH_BOUNDS: return "MESH_BOUNDS";
	330	case M_SUBMESH_NAME_TABLE: return "SUBMESH_NAME_TABLE";
	331	case M_SUBMESH_NAME_TABLE_ELEMENT: return "SUBMESH_NAME_TABLE_ELEMENT";
	332	case M_EDGE_LISTS: return "EDGE_LISTS";
	333	case M_EDGE_LIST_LOD: return "EDGE_LIST_LOD";
	334	case M_EDGE_GROUP: return "EDGE_GROUP";
	335	case M_POSES: return "POSES";
	336	case M_POSE: return "POSE";
	337	case M_POSE_VERTEX: return "POSE_VERTEX";
	338	case M_ANIMATIONS: return "ANIMATIONS";
	339	case M_ANIMATION: return "ANIMATION";
	340	case M_ANIMATION_BASEINFO: return "ANIMATION_BASEINFO";
	341	case M_ANIMATION_TRACK: return "ANIMATION_TRACK";
	342	case M_ANIMATION_MORPH_KEYFRAME: return "ANIMATION_MORPH_KEYFRAME";
	343	case M_ANIMATION_POSE_KEYFRAME: return "ANIMATION_POSE_KEYFRAME";
	344	case M_ANIMATION_POSE_REF: return "ANIMATION_POSE_REF";
	345	case M_TABLE_EXTREMES: return "TABLE_EXTREMES";
	346	}
	347	return "Unknown_MeshChunkId";
	348	}
	349
	350	enum SkeletonChunkId
	351	{
	352	SKELETON_HEADER = 0x1000,
	353	// char* version : Version number check
	354	SKELETON_BLENDMODE = 0x1010, // optional
	355	// unsigned short blendmode : SkeletonAnimationBlendMode
	356	SKELETON_BONE = 0x2000,
	357	// Repeating section defining each bone in the system.
	358	// Bones are assigned indexes automatically based on their order of declaration
	359	// starting with 0.
	360	// char* name : name of the bone
	361	// unsigned short handle : handle of the bone, should be contiguous & start at 0
	362	// Vector3 position : position of this bone relative to parent
	363	// Quaternion orientation : orientation of this bone relative to parent
	364	// Vector3 scale : scale of this bone relative to parent
	365	SKELETON_BONE_PARENT = 0x3000,
	366	// Record of the parent of a single bone, used to build the node tree
	367	// Repeating section, listed in Bone Index order, one per Bone
	368	// unsigned short handle : child bone
	369	// unsigned short parentHandle : parent bone
	370	SKELETON_ANIMATION = 0x4000,
	371	// A single animation for this skeleton
	372	// char* name : Name of the animation
	373	// float length : Length of the animation in seconds
	374	SKELETON_ANIMATION_BASEINFO = 0x4010,
	375	// [Optional] base keyframe information
	376	// char* baseAnimationName (blank for self)
	377	// float baseKeyFrameTime
	378	SKELETON_ANIMATION_TRACK = 0x4100,
	379	// A single animation track (relates to a single bone)
	380	// Repeating section (within SKELETON_ANIMATION)
	381	// unsigned short boneIndex : Index of bone to apply to
	382	SKELETON_ANIMATION_TRACK_KEYFRAME = 0x4110,
	383	// A single keyframe within the track
	384	// Repeating section
	385	// float time : The time position (seconds)
	386	// Quaternion rotate : Rotation to apply at this keyframe
	387	// Vector3 translate : Translation to apply at this keyframe
	388	// Vector3 scale : Scale to apply at this keyframe
	389	SKELETON_ANIMATION_LINK = 0x5000
	390	// Link to another skeleton, to re-use its animations
	391	// char* skeletonName : name of skeleton to get animations from
	392	// float scale : scale to apply to trans/scale keys
	393	};
	394
	395	static std::string SkeletonHeaderToString(SkeletonChunkId id)
	396	{
	397	switch(id)
	398	{
	399	case SKELETON_HEADER: return "HEADER";
	400	case SKELETON_BLENDMODE: return "BLENDMODE";
	401	case SKELETON_BONE: return "BONE";
	402	case SKELETON_BONE_PARENT: return "BONE_PARENT";
	403	case SKELETON_ANIMATION: return "ANIMATION";
	404	case SKELETON_ANIMATION_BASEINFO: return "ANIMATION_BASEINFO";
	405	case SKELETON_ANIMATION_TRACK: return "ANIMATION_TRACK";
	406	case SKELETON_ANIMATION_TRACK_KEYFRAME: return "ANIMATION_TRACK_KEYFRAME";
	407	case SKELETON_ANIMATION_LINK: return "ANIMATION_LINK";
	408	}
	409	return "Unknown_SkeletonChunkId";
	410	}
	411	} // Ogre
	412	} // Assimp
	413
	414	#endif // ASSIMP_BUILD_NO_OGRE_IMPORTER
	415	#endif // AI_OGREBINARYSERIALIZER_H_INC

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code/OgreImporter.cpp less more

37	37	----------------------------------------------------------------------
38	38	*/
39	39
40		/** @file OgreImporter.cpp
41		* @brief Implementation of the Ogre XML (.mesh.xml) loader.
42		*/
43		#include "AssimpPCH.h"
44	40	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
45	41
46		#include <vector>
47		#include <sstream>
48		using namespace std;
	42	#include "AssimpPCH.h"
49	43
50		#include "OgreImporter.hpp"
51		#include "TinyFormatter.h"
52		#include "irrXMLWrapper.h"
	44	#include "OgreImporter.h"
	45	#include "OgreBinarySerializer.h"
	46	#include "OgreXmlSerializer.h"
53	47
54	48	static const aiImporterDesc desc = {
55		"Ogre XML Mesh Importer",
	49	"Ogre3D Mesh Importer",
56	50	"",
57	51	"",
58	52	"",
59		aiImporterFlags_SupportTextFlavour,
	53	aiImporterFlags_SupportTextFlavour \| aiImporterFlags_SupportBinaryFlavour,
60	54	0,
61	55	0,
62	56	0,
63	57	0,
64		"mesh.xml"
	58	"mesh mesh.xml"
65	59	};
66	60
67	61	namespace Assimp

69	63	namespace Ogre
70	64	{
71	65
72
73		bool OgreImporter::CanRead(const std::string &pFile, Assimp::IOSystem *pIOHandler, bool checkSig) const
74		{
75		if(!checkSig)//Check File Extension
76		{
77		std::string extension("mesh.xml");
78		int l=extension.length();
79		return pFile.substr(pFile.length()-l, l)==extension;
80		}
81		else//Check file Header
82		{
83		const char* tokens[] = {"<mesh>"};
84		return BaseImporter::SearchFileHeaderForToken(pIOHandler, pFile, tokens, 1);
85		}
86		}
87
88
89		void OgreImporter::InternReadFile(const std::string &pFile, aiScene pScene, Assimp::IOSystem pIOHandler)
90		{
91		m_CurrentFilename=pFile;
92		m_CurrentIOHandler=pIOHandler;
93		m_CurrentScene=pScene;
94
95		//Open the File:
96		boost::scoped_ptr<IOStream> file(pIOHandler->Open(pFile));
97		if( file.get() == NULL)
98		throw DeadlyImportError("Failed to open file "+pFile+".");
99
100		//Read the Mesh File:
101		boost::scoped_ptr<CIrrXML_IOStreamReader> mIOWrapper( new CIrrXML_IOStreamReader( file.get()));
102		XmlReader* MeshFile = irr::io::createIrrXMLReader(mIOWrapper.get());
103		if(!MeshFile)//parse the xml file
104		throw DeadlyImportError("Failed to create XML Reader for "+pFile);
105
106
107		DefaultLogger::get()->debug("Mesh File opened");
108
109		//Read root Node:
110		if(!(XmlRead(MeshFile) && string(MeshFile->getNodeName())=="mesh"))
111		{
112		throw DeadlyImportError("Root Node is not <mesh>! "+pFile+" "+MeshFile->getNodeName());
113		}
114
115		//eventually load shared geometry
116		XmlRead(MeshFile);//shared geometry is optional, so we need a reed for the next two if's
117		if(MeshFile->getNodeName()==string("sharedgeometry"))
118		{
119		unsigned int NumVertices=GetAttribute<int>(MeshFile, "vertexcount");;
120
121		XmlRead(MeshFile);
122		while(MeshFile->getNodeName()==string("vertexbuffer"))
123		{
124		ReadVertexBuffer(m_SharedGeometry, MeshFile, NumVertices);
125		}
126		}
127
128		//Go to the submeshs:
129		if(MeshFile->getNodeName()!=string("submeshes"))
130		{
131		throw DeadlyImportError("No <submeshes> node in <mesh> node! "+pFile);
132		}
133
134
135		//-------------------Read the submeshs and materials:-----------------------
136		std::list<boost::shared_ptr<SubMesh> > SubMeshes;
137		vector<aiMaterial*> Materials;
138		XmlRead(MeshFile);
139		while(MeshFile->getNodeName()==string("submesh"))
140		{
141		SubMesh* theSubMesh=new SubMesh();
142		theSubMesh->MaterialName=GetAttribute<string>(MeshFile, "material");
143		DefaultLogger::get()->debug("Loading Submehs with Material: "+theSubMesh->MaterialName);
144		ReadSubMesh(*theSubMesh, MeshFile);
145
146		//just a index in a array, we add a mesh in each loop cycle, so we get indicies like 0, 1, 2 ... n;
147		//so it is important to do this before pushing the mesh in the vector!
148		theSubMesh->MaterialIndex=SubMeshes.size();
149
150		SubMeshes.push_back(boost::shared_ptr<SubMesh>(theSubMesh));
151
152		//Load the Material:
153		aiMaterial* MeshMat=LoadMaterial(theSubMesh->MaterialName);
154
155		//Set the Material:
156		Materials.push_back(MeshMat);
157		}
158
159		if(SubMeshes.empty())
160		throw DeadlyImportError("no submesh loaded!");
161		if(SubMeshes.size()!=Materials.size())
162		throw DeadlyImportError("materialcount doesn't match mesh count!");
163
164		//____________________________________________________________
165
166
167		//----------------Load the skeleton: -------------------------------
168		vector<Bone> Bones;
169		vector<Animation> Animations;
170		if(MeshFile->getNodeName()==string("skeletonlink"))
171		{
172		string SkeletonFile=GetAttribute<string>(MeshFile, "name");
173		LoadSkeleton(SkeletonFile, Bones, Animations);
174		XmlRead(MeshFile);
175		}
176		else
177		{
178		DefaultLogger::get()->warn("No skeleton file will be loaded");
179		DefaultLogger::get()->warn(MeshFile->getNodeName());
180		}
181		//__________________________________________________________________
182
183
184		//now there might be boneassignments for the shared geometry:
185		if(MeshFile->getNodeName()==string("boneassignments"))
186		{
187		ReadBoneWeights(m_SharedGeometry, MeshFile);
188		}
189
190
191		//----------------- Process Meshs -----------------------
192		BOOST_FOREACH(boost::shared_ptr<SubMesh> theSubMesh, SubMeshes)
193		{
194		ProcessSubMesh(*theSubMesh, m_SharedGeometry);
195		}
196		//_______________________________________________________
197
198
199
200
201		//----------------- Now fill the Assimp scene ---------------------------
202
203		//put the aiMaterials in the scene:
204		m_CurrentScene->mMaterials=new aiMaterial*[Materials.size()];
205		m_CurrentScene->mNumMaterials=Materials.size();
206		for(unsigned int i=0; i<Materials.size(); ++i)
207		m_CurrentScene->mMaterials[i]=Materials[i];
208
209		//create the aiMehs...
210		vector<aiMesh*> aiMeshes;
211		BOOST_FOREACH(boost::shared_ptr<SubMesh> theSubMesh, SubMeshes)
212		{
213		aiMeshes.push_back(CreateAssimpSubMesh(*theSubMesh, Bones));
214		}
215		//... and put them in the scene:
216		m_CurrentScene->mNumMeshes=aiMeshes.size();
217		m_CurrentScene->mMeshes=new aiMesh*[aiMeshes.size()];
218		memcpy(m_CurrentScene->mMeshes, &(aiMeshes[0]), sizeof(aiMeshes[0])*aiMeshes.size());
219
220		//Create the root node
221		m_CurrentScene->mRootNode=new aiNode("root");
222
223		//link the meshs with the root node:
224		m_CurrentScene->mRootNode->mMeshes=new unsigned int[SubMeshes.size()];
225		m_CurrentScene->mRootNode->mNumMeshes=SubMeshes.size();
226		for(unsigned int i=0; i<SubMeshes.size(); ++i)
227		m_CurrentScene->mRootNode->mMeshes[i]=i;
228
229
230
231		CreateAssimpSkeleton(Bones, Animations);
232		PutAnimationsInScene(Bones, Animations);
233		//___________________________________________________________
234		}
235
236
237		const aiImporterDesc* OgreImporter::GetInfo () const
	66	const aiImporterDesc* OgreImporter::GetInfo() const
238	67	{
239	68	return &desc;
240	69	}
241	70
242
243	71	void OgreImporter::SetupProperties(const Importer* pImp)
244	72	{
245		m_MaterialLibFilename=pImp->GetPropertyString(AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE, "Scene.material");
246		m_TextureTypeFromFilename=pImp->GetPropertyBool(AI_CONFIG_IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME, false);
	73	m_userDefinedMaterialLibFile = pImp->GetPropertyString(AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE, "Scene.material");
	74	m_detectTextureTypeFromFilename = pImp->GetPropertyBool(AI_CONFIG_IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME, false);
247	75	}
248	76
	77	bool OgreImporter::CanRead(const std::string &pFile, Assimp::IOSystem *pIOHandler, bool checkSig) const
	78	{
	79	if (!checkSig) {
	80	return EndsWith(pFile, ".mesh.xml", false) \|\| EndsWith(pFile, ".mesh", false);
	81	}
249	82
250		}//namespace Ogre
251		}//namespace Assimp
	83	if (EndsWith(pFile, ".mesh.xml", false))
	84	{
	85	const char* tokens[] = { "<mesh>" };
	86	return SearchFileHeaderForToken(pIOHandler, pFile, tokens, 1);
	87	}
	88	else
	89	{
	90	/// @todo Read and validate first header chunk?
	91	return EndsWith(pFile, ".mesh", false);
	92	}
	93	}
252	94
253		#endif // !! ASSIMP_BUILD_NO_OGRE_IMPORTER
	95	void OgreImporter::InternReadFile(const std::string &pFile, aiScene pScene, Assimp::IOSystem pIOHandler)
	96	{
	97	// Open source file
	98	IOStream *f = pIOHandler->Open(pFile, "rb");
	99	if (!f) {
	100	throw DeadlyImportError("Failed to open file " + pFile);
	101	}
	102
	103	// Binary .mesh import
	104	if (EndsWith(pFile, ".mesh", false))
	105	{
	106	/// @note MemoryStreamReader takes ownership of f.
	107	MemoryStreamReader reader(f);
	108
	109	// Import mesh
	110	boost::scoped_ptr<Mesh> mesh(OgreBinarySerializer::ImportMesh(&reader));
	111
	112	// Import skeleton
	113	OgreBinarySerializer::ImportSkeleton(pIOHandler, mesh.get());
	114
	115	// Import mesh referenced materials
	116	ReadMaterials(pFile, pIOHandler, pScene, mesh.get());
	117
	118	// Convert to Assimp
	119	mesh->ConvertToAssimpScene(pScene);
	120	}
	121	// XML .mesh.xml import
	122	else
	123	{
	124	/// @note XmlReader does not take ownership of f, hence the scoped ptr.
	125	boost::scoped_ptr<IOStream> scopedFile(f);
	126	boost::scoped_ptr<CIrrXML_IOStreamReader> xmlStream(new CIrrXML_IOStreamReader(scopedFile.get()));
	127	boost::scoped_ptr<XmlReader> reader(irr::io::createIrrXMLReader(xmlStream.get()));
	128
	129	// Import mesh
	130	boost::scoped_ptr<MeshXml> mesh(OgreXmlSerializer::ImportMesh(reader.get()));
	131
	132	// Import skeleton
	133	OgreXmlSerializer::ImportSkeleton(pIOHandler, mesh.get());
	134
	135	// Import mesh referenced materials
	136	ReadMaterials(pFile, pIOHandler, pScene, mesh.get());
	137
	138	// Convert to Assimp
	139	mesh->ConvertToAssimpScene(pScene);
	140	}
	141	}
	142
	143	} // Ogre
	144	} // Assimp
	145
	146	#endif // ASSIMP_BUILD_NO_OGRE_IMPORTER

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code/OgreImporter.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	#ifndef AI_OGREIMPORTER_H_INC
	41	#define AI_OGREIMPORTER_H_INC
	42
	43	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
	44
	45	#include "BaseImporter.h"
	46
	47	#include "OgreStructs.h"
	48	#include "OgreParsingUtils.h"
	49
	50	namespace Assimp
	51	{
	52	namespace Ogre
	53	{
	54
	55	/** Importer for Ogre mesh, skeleton and material formats.
	56	@todo Support vertex colors.
	57	@todo Support poses/animations from the mesh file.
	58	Currently only skeleton file animations are supported. */
	59	class OgreImporter : public BaseImporter
	60	{
	61	public:
	62	/// BaseImporter override.
	63	virtual bool CanRead(const std::string &pFile, IOSystem *pIOHandler, bool checkSig) const;
	64
	65	/// BaseImporter override.
	66	virtual void InternReadFile(const std::string &pFile, aiScene pScene, IOSystem pIOHandler);
	67
	68	/// BaseImporter override.
	69	virtual const aiImporterDesc *GetInfo() const;
	70
	71	/// BaseImporter override.
	72	virtual void SetupProperties(const Importer *pImp);
	73
	74	private:
	75	/// Read materials referenced by the @c mesh to @c pScene.
	76	void ReadMaterials(const std::string &pFile, Assimp::IOSystem pIOHandler, aiScene pScene, Mesh *mesh);
	77	void ReadMaterials(const std::string &pFile, Assimp::IOSystem pIOHandler, aiScene pScene, MeshXml *mesh);
	78	void AssignMaterials(aiScene pScene, std::vector<aiMaterial> &materials);
	79
	80	/// Reads material
	81	aiMaterial* ReadMaterial(const std::string &pFile, Assimp::IOSystem *pIOHandler, const std::string MaterialName);
	82
	83	// These functions parse blocks from a material file from @c ss. Starting parsing from "{" and ending it to "}".
	84	bool ReadTechnique(const std::string &techniqueName, std::stringstream &ss, aiMaterial *material);
	85	bool ReadPass(const std::string &passName, std::stringstream &ss, aiMaterial *material);
	86	bool ReadTextureUnit(const std::string &textureUnitName, std::stringstream &ss, aiMaterial *material);
	87
	88	std::string m_userDefinedMaterialLibFile;
	89	bool m_detectTextureTypeFromFilename;
	90
	91	std::map<aiTextureType, unsigned int> m_textures;
	92	};
	93	} // Ogre
	94	} // Assimp
	95
	96	#endif // ASSIMP_BUILD_NO_OGRE_IMPORTER
	97	#endif // AI_OGREIMPORTER_H_INC

-185

~~code/OgreImporter.hpp~~ less more

0		#include "BaseImporter.h"
1
2		#include <vector>
3
4		#include "OgreXmlHelper.hpp"
5		#include "irrXMLWrapper.h"
6
7		/// Ogre Importer TODO
8		/* - Read Vertex Colors
9		- Read multiple TexCoords
10		*/
11
12
13
14		namespace Assimp
15		{
16		namespace Ogre
17		{
18
19
20		//Forward declarations:
21		struct Face;
22		struct Weight;
23		struct Bone;
24		struct Animation;
25		struct Track;
26		struct Keyframe;
27
28		///A submesh from Ogre
29		struct SubMesh
30		{
31		bool SharedData;
32
33		std::string Name;
34		std::string MaterialName;
35		std::vector<Face> FaceList;
36
37		std::vector<aiVector3D> Positions; bool HasPositions;
38		std::vector<aiVector3D> Normals; bool HasNormals;
39		std::vector<aiVector3D> Tangents; bool HasTangents;
40		std::vector<std::vector<aiVector3D> > Uvs;//arbitrary number of texcoords, they are nearly always 2d, but assimp has always 3d texcoords, n vectors(outer) with texcoords for each vertex(inner)
41
42		std::vector< std::vector<Weight> > Weights;//a list(inner) of bones for each vertex(outer)
43		int MaterialIndex;///< The Index in the Assimp Materialarray from the material witch is attached to this submesh
44		unsigned int BonesUsed;//the highest index of a bone from a bone weight, this is needed to create the assimp bone structur (converting from Vertex-Bones to Bone-Vertices)
45
46		SubMesh(): SharedData(false), HasPositions(false), HasNormals(false), HasTangents(false),
47		MaterialIndex(-1), BonesUsed(0) {}//initialize everything
48		};
49
50
51		///The Main Ogre Importer Class
52		class OgreImporter : public BaseImporter
53		{
54		public:
55		virtual bool CanRead( const std::string& pFile, IOSystem* pIOHandler, bool checkSig) const;
56		virtual void InternReadFile( const std::string& pFile, aiScene* pScene, IOSystem* pIOHandler);
57		virtual const aiImporterDesc* GetInfo () const;
58		virtual void SetupProperties(const Importer* pImp);
59		private:
60
61
62		//-------------------------------- OgreMesh.cpp -------------------------------
63		/// Helper Functions to read parts of the XML File
64		void ReadSubMesh(SubMesh& theSubMesh, XmlReader* Reader);//the submesh reference is the result value
65
66		/// Reads a single Vertexbuffer and writes its data in the Submesh
67		static void ReadVertexBuffer(SubMesh &theSubMesh, XmlReader *Reader, unsigned int NumVertices);
68
69		/// Reads bone weights are stores them into the given submesh
70		static void ReadBoneWeights(SubMesh &theSubMesh, XmlReader *Reader);
71
72		/// After Loading a SubMehs some work needs to be done (make all Vertexes unique, normalize weights)
73		static void ProcessSubMesh(SubMesh &theSubMesh, SubMesh &theSharedGeometry);
74
75		/// Uses the bone data to convert a SubMesh into a aiMesh which will be created and returned
76		aiMesh* CreateAssimpSubMesh(const SubMesh &theSubMesh, const std::vector<Bone>& Bones) const;
77
78
79		//-------------------------------- OgreSkeleton.cpp -------------------------------
80		/// Writes the results in Bones and Animations, Filename is not const, because its call-by-value and the function will change it!
81		void LoadSkeleton(std::string FileName, std::vector<Bone> &Bones, std::vector<Animation> &Animations) const;
82
83		/// Converts the animations in aiAnimations and puts them into the scene
84		void PutAnimationsInScene(const std::vector<Bone> &Bones, const std::vector<Animation> &Animations);
85
86		/// Creates the aiskeleton in current scene
87		void CreateAssimpSkeleton(const std::vector<Bone> &Bones, const std::vector<Animation> &Animations);
88
89		/// Recursivly creates a filled aiNode from a given root bone
90		static aiNode* CreateAiNodeFromBone(int BoneId, const std::vector<Bone> &Bones, aiNode* ParentNode);
91
92
93		//-------------------------------- OgreMaterial.cpp -------------------------------
94		aiMaterial* LoadMaterial(const std::string MaterialName) const;
95		void ReadTechnique(std::stringstream &ss, aiMaterial* NewMaterial) const;
96
97
98
99
100		//Now we don't have to give theses parameters to all functions
101		std::string m_CurrentFilename;
102		std::string m_MaterialLibFilename;
103		bool m_TextureTypeFromFilename;
104		IOSystem* m_CurrentIOHandler;
105		aiScene *m_CurrentScene;
106		SubMesh m_SharedGeometry;///< we will just use the vertexbuffers of the submesh
107		};
108
109		///For the moment just triangles, no other polygon types!
110		struct Face
111		{
112		unsigned int VertexIndices[3];
113		};
114
115		struct BoneAssignment
116		{
117		unsigned int BoneId;//this is, what we get from ogre
118		std::string BoneName;//this is, what we need for assimp
119		};
120
121		///for a vertex->bone structur
122		struct Weight
123		{
124		unsigned int BoneId;
125		float Value;
126		};
127
128
129		/// Helper Class to describe an ogre-bone for the skeleton:
130		/** All Id's are signed ints, because than we have -1 as a simple INVALID_ID Value (we start from 0 so 0 is a valid bone ID!*/
131		struct Bone
132		{
133		int Id;
134		int ParentId;
135		std::string Name;
136		aiVector3D Position;
137		float RotationAngle;
138		aiVector3D RotationAxis;
139		std::vector<int> Children;
140		aiMatrix4x4 BoneToWorldSpace;
141
142		///ctor
143		Bone(): Id(-1), ParentId(-1), RotationAngle(0.0f) {}
144		///this operator is needed to sort the bones after Id's
145		bool operator<(const Bone& rval) const
146		{return Id<rval.Id; }
147		///this operator is needed to find a bone by its name in a vector<Bone>
148		bool operator==(const std::string& rval) const
149		{return Name==rval; }
150		bool operator==(const aiString& rval) const
151		{return Name==std::string(rval.data); }
152
153		// implemented in OgreSkeleton.cpp
154		void CalculateBoneToWorldSpaceMatrix(std::vector<Bone>& Bones);
155		};
156
157
158
159		///Describes an Ogre Animation
160		struct Animation
161		{
162		std::string Name;
163		float Length;
164		std::vector<Track> Tracks;
165		};
166
167		///a track (keyframes for one bone) from an animation
168		struct Track
169		{
170		std::string BoneName;
171		std::vector<Keyframe> Keyframes;
172		};
173
174		/// keyframe (bone transformation) from a track from a animation
175		struct Keyframe
176		{
177		float Time;
178		aiVector3D Position;
179		aiQuaternion Rotation;
180		aiVector3D Scaling;
181		};
182
183		}//namespace Ogre
184		}//namespace Assimp

+503

-357

code/OgreMaterial.cpp less more

37	37	----------------------------------------------------------------------
38	38	*/
39	39
40		/**
41		This file contains material related code. This is
42		spilitted up from the main file OgreImporter.cpp
43		to make it shorter easier to maintain.
44		*/
45	40	#include "AssimpPCH.h"
46	41
47	42	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
	43
	44	#include "OgreImporter.h"
	45	#include "TinyFormatter.h"
	46
	47	#include "fast_atof.h"
48	48
49	49	#include <vector>
50	50	#include <sstream>
	51
51	52	using namespace std;
52	53
53		#include "OgreImporter.hpp"
54		#include "irrXMLWrapper.h"
55		#include "TinyFormatter.h"
56
57	54	namespace Assimp
58	55	{
59	56	namespace Ogre
60	57	{
61	58
62
63
64		aiMaterial* OgreImporter::LoadMaterial(const std::string MaterialName) const
65		{
66		const aiScene* const m_CurrentScene=this->m_CurrentScene;//make sure, that we can access but not change the scene
67		(void)m_CurrentScene;
68
69		/*For bettetr understanding of the material parser, here is a material example file:
70
71		material Sarg
72		{
73		receive_shadows on
74		technique
75		{
76		pass
77		{
78		ambient 0.500000 0.500000 0.500000 1.000000
79		diffuse 0.640000 0.640000 0.640000 1.000000
80		specular 0.500000 0.500000 0.500000 1.000000 12.500000
81		emissive 0.000000 0.000000 0.000000 1.000000
82		texture_unit
83		{
84		texture SargTextur.tga
85		tex_address_mode wrap
86		filtering linear linear none
87		}
88		}
89		}
90		}
91
92		*/
	59	static const string partComment = "//";
	60	static const string partBlockStart = "{";
	61	static const string partBlockEnd = "}";
	62
	63	void OgreImporter::ReadMaterials(const std::string &pFile, Assimp::IOSystem pIOHandler, aiScene pScene, Mesh *mesh)
	64	{
	65	std::vector<aiMaterial*> materials;
	66
	67	// Create materials that can be found and parsed via the IOSystem.
	68	for (size_t i=0, len=mesh->NumSubMeshes(); i<len; ++i)
	69	{
	70	SubMesh *submesh = mesh->GetSubMesh(i);
	71	if (submesh && !submesh->materialRef.empty())
	72	{
	73	aiMaterial *material = ReadMaterial(pFile, pIOHandler, submesh->materialRef);
	74	if (material)
	75	{
	76	submesh->materialIndex = materials.size();
	77	materials.push_back(material);
	78	}
	79	}
	80	}
	81
	82	AssignMaterials(pScene, materials);
	83	}
	84
	85	void OgreImporter::ReadMaterials(const std::string &pFile, Assimp::IOSystem pIOHandler, aiScene pScene, MeshXml *mesh)
	86	{
	87	std::vector<aiMaterial*> materials;
	88
	89	// Create materials that can be found and parsed via the IOSystem.
	90	for (size_t i=0, len=mesh->NumSubMeshes(); i<len; ++i)
	91	{
	92	SubMeshXml *submesh = mesh->GetSubMesh(i);
	93	if (submesh && !submesh->materialRef.empty())
	94	{
	95	aiMaterial *material = ReadMaterial(pFile, pIOHandler, submesh->materialRef);
	96	if (material)
	97	{
	98	submesh->materialIndex = materials.size();
	99	materials.push_back(material);
	100	}
	101	}
	102	}
	103
	104	AssignMaterials(pScene, materials);
	105	}
	106
	107	void OgreImporter::AssignMaterials(aiScene pScene, std::vector<aiMaterial> &materials)
	108	{
	109	pScene->mNumMaterials = materials.size();
	110	if (pScene->mNumMaterials > 0)
	111	{
	112	pScene->mMaterials = new aiMaterial*[pScene->mNumMaterials];
	113	for(size_t i=0;i<pScene->mNumMaterials; ++i) {
	114	pScene->mMaterials[i] = materials[i];
	115	}
	116	}
	117	}
	118
	119	aiMaterial* OgreImporter::ReadMaterial(const std::string &pFile, Assimp::IOSystem *pIOHandler, const std::string materialName)
	120	{
	121	if (materialName.empty()) {
	122	return 0;
	123	}
	124
	125	// Full reference and examples of Ogre Material Script
	126	// can be found from http://www.ogre3d.org/docs/manual/manual_14.html
93	127
94	128	/*and here is another one:
95	129

114	148	}
115	149	*/
116	150
117		//Read the file into memory and put it in a stringstream
118	151	stringstream ss;
119		{// after this block, the temporarly loaded data will be released
120
121		/*
122		We have 3 guesses for the Material filename:
123		- the Material Name
124		- the Name of the mesh file
125		- the DefaultMaterialLib (which you can set before importing)
126		*/
	152
	153	// Scope for scopre_ptr auto release
	154	{
	155	/* There are three .material options in priority order:
	156	1) File with the material name (materialName)
	157	2) File with the mesh files base name (pFile)
	158	3) Optional user defined material library file (m_userDefinedMaterialLibFile) */
	159	std::vector<string> potentialFiles;
	160	potentialFiles.push_back(materialName + ".material");
	161	potentialFiles.push_back(pFile.substr(0, pFile.rfind(".mesh")) + ".material");
	162	if (!m_userDefinedMaterialLibFile.empty())
	163	potentialFiles.push_back(m_userDefinedMaterialLibFile);
127	164
128		IOStream* MatFilePtr=m_CurrentIOHandler->Open(MaterialName+".material");
129		if(NULL==MatFilePtr)
130		{
131		//the filename typically ends with .mesh or .mesh.xml
132		const string MaterialFileName=m_CurrentFilename.substr(0, m_CurrentFilename.rfind(".mesh"))+".material";
133
134		MatFilePtr=m_CurrentIOHandler->Open(MaterialFileName);
135		if(NULL==MatFilePtr)
136		{
137		//try the default mat Library
138		if(NULL==MatFilePtr)
139		{
	165	IOStream *materialFile = 0;
	166	for(size_t i=0; i<potentialFiles.size(); ++i)
	167	{
	168	materialFile = pIOHandler->Open(potentialFiles[i]);
	169	if (materialFile) {
	170	break;
	171	}
	172	DefaultLogger::get()->debug(Formatter::format() << "Source file for material '" << materialName << "' " << potentialFiles[i] << " does not exist");
	173	}
	174	if (!materialFile)
	175	{
	176	DefaultLogger::get()->error(Formatter::format() << "Failed to find source file for material '" << materialName << "'");
	177	return 0;
	178	}
	179
	180	boost::scoped_ptr<IOStream> stream(materialFile);
	181	if (stream->FileSize() == 0)
	182	{
	183	DefaultLogger::get()->warn(Formatter::format() << "Source file for material '" << materialName << "' is empty (size is 0 bytes)");
	184	return 0;
	185	}
	186
	187	// Read bytes
	188	vector<char> data(stream->FileSize());
	189	stream->Read(&data[0], stream->FileSize(), 1);
	190
	191	// Convert to UTF-8 and terminate the string for ss
	192	BaseImporter::ConvertToUTF8(data);
	193	data.push_back('\0');
	194
	195	ss << &data[0];
	196	}
	197
	198	DefaultLogger::get()->debug("Reading material '" + materialName + "'");
	199
	200	aiMaterial *material = new aiMaterial();
	201	m_textures.clear();
	202
	203	aiString ts(materialName);
	204	material->AddProperty(&ts, AI_MATKEY_NAME);
	205
	206	// The stringstream will push words from a line until newline.
	207	// It will also trim whitespace from line start and between words.
	208	string linePart;
	209	ss >> linePart;
	210
	211	const string partMaterial = "material";
	212	const string partTechnique = "technique";
	213
	214	while(!ss.eof())
	215	{
	216	// Skip commented lines
	217	if (linePart == partComment)
	218	{
	219	NextAfterNewLine(ss, linePart);
	220	continue;
	221	}
	222	if (linePart != partMaterial)
	223	{
	224	ss >> linePart;
	225	continue;
	226	}
	227
	228	ss >> linePart;
	229	if (linePart != materialName)
	230	{
	231	//DefaultLogger::get()->debug(Formatter::format() << "Found material '" << linePart << "' that does not match at index " << ss.tellg());
	232	ss >> linePart;
	233	continue;
	234	}
	235
	236	NextAfterNewLine(ss, linePart);
	237	if (linePart != partBlockStart)
	238	{
	239	DefaultLogger::get()->error(Formatter::format() << "Invalid material: block start missing near index " << ss.tellg());
	240	return material;
	241	}
	242
	243	DefaultLogger::get()->debug("material '" + materialName + "'");
	244
	245	while(linePart != partBlockEnd)
	246	{
	247	// Proceed to the first technique
	248	ss >> linePart;
	249
	250	if (linePart == partTechnique)
	251	{
	252	string techniqueName = SkipLine(ss);
	253	ReadTechnique(Trim(techniqueName), ss, material);
	254	}
	255
	256	// Read informations from a custom material
	257	/** @todo This "set $x y" does not seem to be a official Ogre material system feature.
	258	Materials can inherit other materials and override texture units by using the (unique)
	259	parent texture unit name in your cloned material.
	260	This is not yet supported and below code is probably some hack from the original
	261	author of this Ogre importer. Should be removed? */
	262	if (linePart=="set")
	263	{
	264	ss >> linePart;
	265	if (linePart=="$specular")//todo load this values:
	266	{
	267	}
	268	else if (linePart=="$diffuse")
	269	{
	270	}
	271	else if (linePart=="$ambient")
	272	{
	273	}
	274	else if (linePart=="$colormap")
	275	{
	276	ss >> linePart;
	277	aiString ts(linePart);
	278	material->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_DIFFUSE, 0));
	279	}
	280	else if (linePart=="$normalmap")
	281	{
	282	ss >> linePart;
	283	aiString ts(linePart);
	284	material->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_NORMALS, 0));
	285	}
	286	else if (linePart=="$shininess_strength")
	287	{
	288	ss >> linePart;
	289	float Shininess = fast_atof(linePart.c_str());
	290	material->AddProperty(&Shininess, 1, AI_MATKEY_SHININESS_STRENGTH);
	291	}
	292	else if (linePart=="$shininess_exponent")
	293	{
	294	ss >> linePart;
	295	float Shininess = fast_atof(linePart.c_str());
	296	material->AddProperty(&Shininess, 1, AI_MATKEY_SHININESS);
	297	}
	298	//Properties from Venetica:
	299	else if (linePart=="$diffuse_map")
	300	{
	301	ss >> linePart;
	302	if (linePart[0] == '"')// "file" -> file
	303	linePart = linePart.substr(1, linePart.size()-2);
	304	aiString ts(linePart);
	305	material->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_DIFFUSE, 0));
	306	}
	307	else if (linePart=="$specular_map")
	308	{
	309	ss >> linePart;
	310	if (linePart[0] == '"')// "file" -> file
	311	linePart = linePart.substr(1, linePart.size()-2);
	312	aiString ts(linePart);
	313	material->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_SHININESS, 0));
	314	}
	315	else if (linePart=="$normal_map")
	316	{
	317	ss >> linePart;
	318	if (linePart[0]=='"')// "file" -> file
	319	linePart = linePart.substr(1, linePart.size()-2);
	320	aiString ts(linePart);
	321	material->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_NORMALS, 0));
	322	}
	323	else if (linePart=="$light_map")
	324	{
	325	ss >> linePart;
	326	if (linePart[0]=='"') {
	327	linePart = linePart.substr(1, linePart.size() - 2);
	328	}
	329	aiString ts(linePart);
	330	material->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_LIGHTMAP, 0));
	331	}
	332	}
	333	}
	334	ss >> linePart;
	335	}
	336
	337	return material;
	338	}
	339
	340	bool OgreImporter::ReadTechnique(const std::string &techniqueName, stringstream &ss, aiMaterial *material)
	341	{
	342	string linePart;
	343	ss >> linePart;
	344
	345	if (linePart != partBlockStart)
	346	{
	347	DefaultLogger::get()->error(Formatter::format() << "Invalid material: Technique block start missing near index " << ss.tellg());
	348	return false;
	349	}
	350
	351	DefaultLogger::get()->debug(" technique '" + techniqueName + "'");
	352
	353	const string partPass = "pass";
	354
	355	while(linePart != partBlockEnd)
	356	{
	357	ss >> linePart;
	358
	359	// Skip commented lines
	360	if (linePart == partComment)
	361	{
	362	SkipLine(ss);
	363	continue;
	364	}
	365
	366	/// @todo Techniques have other attributes than just passes.
	367	if (linePart == partPass)
	368	{
	369	string passName = SkipLine(ss);
	370	ReadPass(Trim(passName), ss, material);
	371	}
	372	}
	373	return true;
	374	}
	375
	376	bool OgreImporter::ReadPass(const std::string &passName, stringstream &ss, aiMaterial *material)
	377	{
	378	string linePart;
	379	ss >> linePart;
	380
	381	if (linePart != partBlockStart)
	382	{
	383	DefaultLogger::get()->error(Formatter::format() << "Invalid material: Pass block start missing near index " << ss.tellg());
	384	return false;
	385	}
	386
	387	DefaultLogger::get()->debug(" pass '" + passName + "'");
	388
	389	const string partAmbient = "ambient";
	390	const string partDiffuse = "diffuse";
	391	const string partSpecular = "specular";
	392	const string partEmissive = "emissive";
	393	const string partTextureUnit = "texture_unit";
	394
	395	while(linePart != partBlockEnd)
	396	{
	397	ss >> linePart;
	398
	399	// Skip commented lines
	400	if (linePart == partComment)
	401	{
	402	SkipLine(ss);
	403	continue;
	404	}
	405
	406	// Colors
	407	/// @todo Support alpha via aiColor4D.
	408	if (linePart == partAmbient \|\| linePart == partDiffuse \|\| linePart == partSpecular \|\| linePart == partEmissive)
	409	{
	410	float r, g, b;
	411	ss >> r >> g >> b;
	412	const aiColor3D color(r, g, b);
	413
	414	DefaultLogger::get()->debug(Formatter::format() << " " << linePart << " " << r << " " << g << " " << b);
	415
	416	if (linePart == partAmbient)
	417	{
	418	material->AddProperty(&color, 1, AI_MATKEY_COLOR_AMBIENT);
	419	}
	420	else if (linePart == partDiffuse)
	421	{
	422	material->AddProperty(&color, 1, AI_MATKEY_COLOR_DIFFUSE);
	423	}
	424	else if (linePart == partSpecular)
	425	{
	426	material->AddProperty(&color, 1, AI_MATKEY_COLOR_SPECULAR);
	427	}
	428	else if (linePart == partEmissive)
	429	{
	430	material->AddProperty(&color, 1, AI_MATKEY_COLOR_EMISSIVE);
	431	}
	432	}
	433	else if (linePart == partTextureUnit)
	434	{
	435	string textureUnitName = SkipLine(ss);
	436	ReadTextureUnit(Trim(textureUnitName), ss, material);
	437	}
	438	}
	439	return true;
	440	}
	441
	442	bool OgreImporter::ReadTextureUnit(const std::string &textureUnitName, stringstream &ss, aiMaterial *material)
	443	{
	444	string linePart;
	445	ss >> linePart;
	446
	447	if (linePart != partBlockStart)
	448	{
	449	DefaultLogger::get()->error(Formatter::format() << "Invalid material: Texture unit block start missing near index " << ss.tellg());
	450	return false;
	451	}
	452
	453	DefaultLogger::get()->debug(" texture_unit '" + textureUnitName + "'");
	454
	455	const string partTexture = "texture";
	456	const string partTextCoordSet = "tex_coord_set";
	457	const string partColorOp = "colour_op";
	458
	459	aiTextureType textureType = aiTextureType_NONE;
	460	std::string textureRef;
	461	int uvCoord = 0;
	462
	463	while(linePart != partBlockEnd)
	464	{
	465	ss >> linePart;
	466
	467	// Skip commented lines
	468	if (linePart == partComment)
	469	{
	470	SkipLine(ss);
	471	continue;
	472	}
	473
	474	if (linePart == partTexture)
	475	{
	476	ss >> linePart;
	477	textureRef = linePart;
	478
	479	// User defined Assimp config property to detect texture type from filename.
	480	if (m_detectTextureTypeFromFilename)
	481	{
	482	size_t posSuffix = textureRef.find_last_of(".");
	483	size_t posUnderscore = textureRef.find_last_of("_");
140	484
141		MatFilePtr=m_CurrentIOHandler->Open(m_MaterialLibFilename);
142		if(NULL==MatFilePtr)
	485	if (posSuffix != string::npos && posUnderscore != string::npos && posSuffix > posUnderscore)
	486	{
	487	string identifier = Ogre::ToLower(textureRef.substr(posUnderscore, posSuffix - posUnderscore));
	488	DefaultLogger::get()->debug(Formatter::format() << "Detecting texture type from filename postfix '" << identifier << "'");
	489
	490	if (identifier == "_n" \|\| identifier == "_nrm" \|\| identifier == "_nrml" \|\| identifier == "_normal" \|\| identifier == "_normals" \|\| identifier == "_normalmap")
143	491	{
144		DefaultLogger::get()->error(m_MaterialLibFilename+" and "+MaterialFileName + " could not be opened, Material will not be loaded!");
145		return NULL;
	492	textureType = aiTextureType_NORMALS;
146	493	}
147		}
148		}
149		}
150		boost::scoped_ptr<IOStream> MaterialFile(MatFilePtr);
151		vector<char> FileData(MaterialFile->FileSize());
152		MaterialFile->Read(&FileData[0], MaterialFile->FileSize(), 1);
153		BaseImporter::ConvertToUTF8(FileData);
154
155		ss << &FileData[0];
156		}
157
158		//create the material
159		aiMaterial *NewMaterial=new aiMaterial();
160
161		aiString ts(MaterialName.c_str());
162		NewMaterial->AddProperty(&ts, AI_MATKEY_NAME);
163
164		string Line;
165		ss >> Line;
166		// unsigned int Level=0;//Hierarchielevels in the material file, like { } blocks into another
167		while(!ss.eof())
168		{
169		if(Line=="material")
170		{
171		ss >> Line;
172		if(Line==MaterialName)//Load the next material
173		{
174		string RestOfLine;
175		getline(ss, RestOfLine);//ignore the rest of the line
176		ss >> Line;
177
178		if(Line!="{")
179		{
180		DefaultLogger::get()->warn("empyt material!");
181		return NULL;
182		}
183
184		while(Line!="}")//read until the end of the material
185		{
186		//Proceed to the first technique
187		ss >> Line;
188		if(Line=="technique")
	494	else if (identifier == "_s" \|\| identifier == "_spec" \|\| identifier == "_specular" \|\| identifier == "_specularmap")
189	495	{
190		ReadTechnique(ss, NewMaterial);
	496	textureType = aiTextureType_SPECULAR;
191	497	}
192
193		DefaultLogger::get()->info(Line);
194		//read informations from a custom material:
195		if(Line=="set")
	498	else if (identifier == "_l" \|\| identifier == "_light" \|\| identifier == "_lightmap" \|\| identifier == "_occ" \|\| identifier == "_occlusion")
196	499	{
197		ss >> Line;
198		if(Line=="$specular")//todo load this values:
199		{
200		}
201		if(Line=="$diffuse")
202		{
203		}
204		if(Line=="$ambient")
205		{
206		}
207		if(Line=="$colormap")
208		{
209		ss >> Line;
210		aiString ts(Line.c_str());
211		NewMaterial->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_DIFFUSE, 0));
212		}
213		if(Line=="$normalmap")
214		{
215		ss >> Line;
216		aiString ts(Line.c_str());
217		NewMaterial->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_NORMALS, 0));
218		}
219
220		if(Line=="$shininess_strength")
221		{
222		ss >> Line;
223		float Shininess=fast_atof(Line.c_str());
224		NewMaterial->AddProperty(&Shininess, 1, AI_MATKEY_SHININESS_STRENGTH);
225		}
226
227		if(Line=="$shininess_exponent")
228		{
229		ss >> Line;
230		float Shininess=fast_atof(Line.c_str());
231		NewMaterial->AddProperty(&Shininess, 1, AI_MATKEY_SHININESS);
232		}
233
234		//Properties from Venetica:
235		if(Line=="$diffuse_map")
236		{
237		ss >> Line;
238		if(Line[0]=='"')// "file" -> file
239		Line=Line.substr(1, Line.size()-2);
240		aiString ts(Line.c_str());
241		NewMaterial->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_DIFFUSE, 0));
242		}
243		if(Line=="$specular_map")
244		{
245		ss >> Line;
246		if(Line[0]=='"')// "file" -> file
247		Line=Line.substr(1, Line.size()-2);
248		aiString ts(Line.c_str());
249		NewMaterial->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_SHININESS, 0));
250		}
251		if(Line=="$normal_map")
252		{
253		ss >> Line;
254		if(Line[0]=='"')// "file" -> file
255		Line=Line.substr(1, Line.size()-2);
256		aiString ts(Line.c_str());
257		NewMaterial->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_NORMALS, 0));
258		}
259		if(Line=="$light_map")
260		{
261		ss >> Line;
262		if(Line[0]=='"')// "file" -> file
263		Line=Line.substr(1, Line.size()-2);
264		aiString ts(Line.c_str());
265		NewMaterial->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_LIGHTMAP, 0));
266		}
267		}
268		}//end of material
269		}
270		else {} //this is the wrong material, proceed the file until we reach the next material
271		}
272		ss >> Line;
273		}
274
275		return NewMaterial;
276		}
277
278		void OgreImporter::ReadTechnique(stringstream &ss, aiMaterial* NewMaterial) const
279		{
280		unsigned int CurrentDiffuseTextureId=0;
281		unsigned int CurrentSpecularTextureId=0;
282		unsigned int CurrentNormalTextureId=0;
283		unsigned int CurrentLightTextureId=0;
284
285
286		string RestOfLine;
287		getline(ss, RestOfLine);//ignore the rest of the line
288
289		string Line;
290		ss >> Line;
291		if(Line!="{")
292		{
293		DefaultLogger::get()->warn("empty technique!");
294		return;
295		}
296		while(Line!="}")//read until the end of the technique
297		{
298		ss >> Line;
299		if(Line=="pass")
300		{
301		getline(ss, RestOfLine);//ignore the rest of the line
302
303		ss >> Line;
304		if(Line!="{")
305		{
306		DefaultLogger::get()->warn("empty pass!");
307		return;
308		}
309		while(Line!="}")//read until the end of the pass
310		{
311		ss >> Line;
312		if(Line=="ambient")
313		{
314		float r,g,b;
315		ss >> r >> g >> b;
316		const aiColor3D Color(r,g,b);
317		NewMaterial->AddProperty(&Color, 1, AI_MATKEY_COLOR_AMBIENT);
318		}
319		else if(Line=="diffuse")
320		{
321		float r,g,b;
322		ss >> r >> g >> b;
323		const aiColor3D Color(r,g,b);
324		NewMaterial->AddProperty(&Color, 1, AI_MATKEY_COLOR_DIFFUSE);
325		}
326		else if(Line=="specular")
327		{
328		float r,g,b;
329		ss >> r >> g >> b;
330		const aiColor3D Color(r,g,b);
331		NewMaterial->AddProperty(&Color, 1, AI_MATKEY_COLOR_SPECULAR);
332		}
333		else if(Line=="emmisive")
334		{
335		float r,g,b;
336		ss >> r >> g >> b;
337		const aiColor3D Color(r,g,b);
338		NewMaterial->AddProperty(&Color, 1, AI_MATKEY_COLOR_EMISSIVE);
339		}
340		else if(Line=="texture_unit")
341		{
342		getline(ss, RestOfLine);//ignore the rest of the line
343
344		std::string TextureName;
345		int TextureType=-1;
346		int UvSet=0;
347
348		ss >> Line;
349		if(Line!="{")
350		throw DeadlyImportError("empty texture unit!");
351		while(Line!="}")//read until the end of the texture_unit
	500	textureType = aiTextureType_LIGHTMAP;
	501	}
	502	else if (identifier == "_disp" \|\| identifier == "_displacement")
352	503	{
353		ss >> Line;
354		if(Line=="texture")
355		{
356		ss >> Line;
357		TextureName=Line;
358
359		if(m_TextureTypeFromFilename)
360		{
361		if(Line.find("_n.")!=string::npos)// Normalmap
362		{
363		TextureType=aiTextureType_NORMALS;
364		}
365		else if(Line.find("_s.")!=string::npos)// Specularmap
366		{
367		TextureType=aiTextureType_SPECULAR;
368		}
369		else if(Line.find("_l.")!=string::npos)// Lightmap
370		{
371		TextureType=aiTextureType_LIGHTMAP;
372		}
373		else// colormap
374		{
375		TextureType=aiTextureType_DIFFUSE;
376		}
377		}
378		else
379		{
380		TextureType=aiTextureType_DIFFUSE;
381		}
382		}
383		else if(Line=="tex_coord_set")
384		{
385		ss >> UvSet;
386		}
387		else if(Line=="colour_op")//TODO implement this
388		{
389		/*
390		ss >> Line;
391		if("replace"==Line)//I don't think, assimp has something for this...
392		{
393		}
394		else if("modulate"==Line)
395		{
396		//TODO: set value
397		//NewMaterial->AddProperty(aiTextureOp_Multiply)
398		}
399		*/
400		}
401
402		}//end of texture unit
403		Line="";//clear the } that would end the outer loop
404
405		//give the texture to assimp:
406
407		aiString ts(TextureName.c_str());
408		switch(TextureType)
	504	textureType = aiTextureType_DISPLACEMENT;
	505	}
	506	else
409	507	{
410		case aiTextureType_DIFFUSE:
411		NewMaterial->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_DIFFUSE, CurrentDiffuseTextureId));
412		NewMaterial->AddProperty(&UvSet, 1, AI_MATKEY_UVWSRC(0, CurrentDiffuseTextureId));
413		CurrentDiffuseTextureId++;
414		break;
415		case aiTextureType_NORMALS:
416		NewMaterial->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_NORMALS, CurrentNormalTextureId));
417		NewMaterial->AddProperty(&UvSet, 1, AI_MATKEY_UVWSRC(0, CurrentNormalTextureId));
418		CurrentNormalTextureId++;
419		break;
420		case aiTextureType_SPECULAR:
421		NewMaterial->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_SPECULAR, CurrentSpecularTextureId));
422		NewMaterial->AddProperty(&UvSet, 1, AI_MATKEY_UVWSRC(0, CurrentSpecularTextureId));
423		CurrentSpecularTextureId++;
424		break;
425		case aiTextureType_LIGHTMAP:
426		NewMaterial->AddProperty(&ts, AI_MATKEY_TEXTURE(aiTextureType_LIGHTMAP, CurrentLightTextureId));
427		NewMaterial->AddProperty(&UvSet, 1, AI_MATKEY_UVWSRC(0, CurrentLightTextureId));
428		CurrentLightTextureId++;
429		break;
430		default:
431		DefaultLogger::get()->warn("Invalid Texture Type!");
432		break;
	508	textureType = aiTextureType_DIFFUSE;
433	509	}
434	510	}
435		}
436		Line="";//clear the } that would end the outer loop
437		}
438		}//end of technique
439		}
440
441
442		}//namespace Ogre
443		}//namespace Assimp
444
445		#endif // !! ASSIMP_BUILD_NO_OGRE_IMPORTER
	511	else
	512	{
	513	textureType = aiTextureType_DIFFUSE;
	514	}
	515	}
	516	// Detect from texture unit name. This cannot be too broad as
	517	// authors might give names like "LightSaber" or "NormalNinja".
	518	else
	519	{
	520	string unitNameLower = Ogre::ToLower(textureUnitName);
	521	if (unitNameLower.find("normalmap") != string::npos)
	522	{
	523	textureType = aiTextureType_NORMALS;
	524	}
	525	else if (unitNameLower.find("specularmap") != string::npos)
	526	{
	527	textureType = aiTextureType_SPECULAR;
	528	}
	529	else if (unitNameLower.find("lightmap") != string::npos)
	530	{
	531	textureType = aiTextureType_LIGHTMAP;
	532	}
	533	else if (unitNameLower.find("displacementmap") != string::npos)
	534	{
	535	textureType = aiTextureType_DISPLACEMENT;
	536	}
	537	else
	538	{
	539	textureType = aiTextureType_DIFFUSE;
	540	}
	541	}
	542	}
	543	else if (linePart == partTextCoordSet)
	544	{
	545	ss >> uvCoord;
	546	}
	547	/// @todo Implement
	548	else if(linePart == partColorOp)
	549	{
	550	/*
	551	ss >> linePart;
	552	if("replace"==linePart)//I don't think, assimp has something for this...
	553	{
	554	}
	555	else if("modulate"==linePart)
	556	{
	557	//TODO: set value
	558	//material->AddProperty(aiTextureOp_Multiply)
	559	}
	560	*/
	561	}
	562	}
	563
	564	if (textureRef.empty())
	565	{
	566	DefaultLogger::get()->warn("Texture reference is empty, ignoring texture_unit.");
	567	return false;
	568	}
	569	if (textureType == aiTextureType_NONE)
	570	{
	571	DefaultLogger::get()->warn("Failed to detect texture type for '" + textureRef + "', ignoring texture_unit.");
	572	return false;
	573	}
	574
	575	unsigned int textureTypeIndex = m_textures[textureType];
	576	m_textures[textureType]++;
	577
	578	DefaultLogger::get()->debug(Formatter::format() << " texture '" << textureRef << "' type " << textureType
	579	<< " index " << textureTypeIndex << " UV " << uvCoord);
	580
	581	aiString assimpTextureRef(textureRef);
	582	material->AddProperty(&assimpTextureRef, AI_MATKEY_TEXTURE(textureType, textureTypeIndex));
	583	material->AddProperty(&uvCoord, 1, AI_MATKEY_UVWSRC(textureType, textureTypeIndex));
	584
	585	return true;
	586	}
	587
	588	} // Ogre
	589	} // Assimp
	590
	591	#endif // ASSIMP_BUILD_NO_OGRE_IMPORTER

-517

~~code/OgreMesh.cpp~~ less more

0		/*
1		Open Asset Import Library (assimp)
2		----------------------------------------------------------------------
3
4		Copyright (c) 2006-2012, assimp team
5		All rights reserved.
6
7		Redistribution and use of this software in source and binary forms,
8		with or without modification, are permitted provided that the
9		following conditions are met:
10
11		* Redistributions of source code must retain the above
12		copyright notice, this list of conditions and the
13		following disclaimer.
14
15		* Redistributions in binary form must reproduce the above
16		copyright notice, this list of conditions and the
17		following disclaimer in the documentation and/or other
18		materials provided with the distribution.
19
20		* Neither the name of the assimp team, nor the names of its
21		contributors may be used to endorse or promote products
22		derived from this software without specific prior
23		written permission of the assimp team.
24
25		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
26		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
27		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
28		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
29		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
30		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
31		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
32		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
33		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
34		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
35		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
36
37		----------------------------------------------------------------------
38		*/
39
40		#include "AssimpPCH.h"
41
42		#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
43
44		#include "OgreImporter.hpp"
45		#include "TinyFormatter.h"
46
47		using namespace std;
48
49		namespace Assimp
50		{
51		namespace Ogre
52		{
53
54
55		void OgreImporter::ReadSubMesh(SubMesh &theSubMesh, XmlReader *Reader)
56		{
57		if(Reader->getAttributeValue("usesharedvertices"))
58		theSubMesh.SharedData=GetAttribute<bool>(Reader, "usesharedvertices");
59
60		XmlRead(Reader);
61		//TODO: maybe we have alsways just 1 faces and 1 geometry and always in this order. this loop will only work correct, when the order
62		//of faces and geometry changed, and not if we have more than one of one
63		while( Reader->getNodeName()==string("faces")
64		\|\| Reader->getNodeName()==string("geometry")
65		\|\| Reader->getNodeName()==string("boneassignments"))
66		{
67		if(string(Reader->getNodeName())=="faces")//Read the face list
68		{
69		//some info logging:
70		unsigned int NumFaces=GetAttribute<int>(Reader, "count");
71		ostringstream ss; ss <<"Submesh has " << NumFaces << " Faces.";
72		DefaultLogger::get()->debug(ss.str());
73
74		while(XmlRead(Reader) && Reader->getNodeName()==string("face"))
75		{
76		Face NewFace;
77		NewFace.VertexIndices[0]=GetAttribute<int>(Reader, "v1");
78		NewFace.VertexIndices[1]=GetAttribute<int>(Reader, "v2");
79		NewFace.VertexIndices[2]=GetAttribute<int>(Reader, "v3");
80		if(Reader->getAttributeValue("v4"))//this should be supported in the future
81		{
82		DefaultLogger::get()->warn("Submesh has quads, only traingles are supported!");
83		//throw DeadlyImportError("Submesh has quads, only traingles are supported!");
84		}
85		theSubMesh.FaceList.push_back(NewFace);
86		}
87
88		}//end of faces
89		else if(string(Reader->getNodeName())=="geometry")//Read the vertexdata
90		{
91		//some info logging:
92		unsigned int NumVertices=GetAttribute<int>(Reader, "vertexcount");
93		ostringstream ss; ss<<"VertexCount: " << NumVertices;
94		DefaultLogger::get()->debug(ss.str());
95
96		//General Informations about vertices
97		XmlRead(Reader);
98		while(Reader->getNodeName()==string("vertexbuffer"))
99		{
100		ReadVertexBuffer(theSubMesh, Reader, NumVertices);
101		}
102
103		//some error checking on the loaded data
104		if(!theSubMesh.HasPositions)
105		throw DeadlyImportError("No positions could be loaded!");
106
107		if(theSubMesh.HasNormals && theSubMesh.Normals.size() != NumVertices)
108		throw DeadlyImportError("Wrong Number of Normals loaded!");
109
110		if(theSubMesh.HasTangents && theSubMesh.Tangents.size() != NumVertices)
111		throw DeadlyImportError("Wrong Number of Tangents loaded!");
112
113		for(unsigned int i=0; i<theSubMesh.Uvs.size(); ++i)
114		{
115		if(theSubMesh.Uvs[i].size() != NumVertices)
116		throw DeadlyImportError("Wrong Number of Uvs loaded!");
117		}
118
119		}//end of "geometry
120
121
122		else if(Reader->getNodeName()==string("boneassignments"))
123		{
124		ReadBoneWeights(theSubMesh, Reader);
125		}
126		}
127		DefaultLogger::get()->debug((Formatter::format(),
128		"Positionen: ",theSubMesh.Positions.size(),
129		" Normale: ",theSubMesh.Normals.size(),
130		" TexCoords: ",theSubMesh.Uvs.size(),
131		" Tantents: ",theSubMesh.Tangents.size()
132		));
133		DefaultLogger::get()->warn(Reader->getNodeName());
134		}
135
136
137		void OgreImporter::ReadVertexBuffer(SubMesh &theSubMesh, XmlReader *Reader, unsigned int NumVertices)
138		{
139		DefaultLogger::get()->debug("new Vertex Buffer");
140
141		bool ReadPositions=false;
142		bool ReadNormals=false;
143		bool ReadTangents=false;
144		unsigned int NumUvs=0;
145
146		//-------------------- check, what we need to read: --------------------------------
147		if(Reader->getAttributeValue("positions") && GetAttribute<bool>(Reader, "positions"))
148		{
149		ReadPositions=theSubMesh.HasPositions=true;
150		theSubMesh.Positions.reserve(NumVertices);
151		DefaultLogger::get()->debug("reading positions");
152		}
153		if(Reader->getAttributeValue("normals") && GetAttribute<bool>(Reader, "normals"))
154		{
155		ReadNormals=theSubMesh.HasNormals=true;
156		theSubMesh.Normals.reserve(NumVertices);
157		DefaultLogger::get()->debug("reading normals");
158		}
159		if(Reader->getAttributeValue("tangents") && GetAttribute<bool>(Reader, "tangents"))
160		{
161		ReadTangents=theSubMesh.HasTangents=true;
162		theSubMesh.Tangents.reserve(NumVertices);
163		DefaultLogger::get()->debug("reading tangents");
164		}
165
166		if(Reader->getAttributeValue("texture_coords"))
167		{
168		NumUvs=GetAttribute<unsigned int>(Reader, "texture_coords");
169		theSubMesh.Uvs.resize(NumUvs);
170		for(unsigned int i=0; i<theSubMesh.Uvs.size(); ++i) theSubMesh.Uvs[i].reserve(NumVertices);
171		DefaultLogger::get()->debug("reading texture coords");
172		}
173		//___________________________________________________________________
174
175
176		//check if we will load anything
177		if(!( ReadPositions \|\| ReadNormals \|\| ReadTangents \|\| (NumUvs>0) ))
178		DefaultLogger::get()->warn("vertexbuffer seams to be empty!");
179
180
181		//read all the vertices:
182		XmlRead(Reader);
183
184		/*it might happen, that we have more than one attribute per vertex (they are not splitted to different buffers)
185		so the break condition is a bit tricky (well, IrrXML just sucks :( )*/
186		while(Reader->getNodeName()==string("vertex")
187		\|\|Reader->getNodeName()==string("position")
188		\|\|Reader->getNodeName()==string("normal")
189		\|\|Reader->getNodeName()==string("tangent")
190		\|\|Reader->getNodeName()==string("texcoord")
191		\|\|Reader->getNodeName()==string("colour_diffuse"))
192		{
193		if(Reader->getNodeName()==string("vertex"))
194		XmlRead(Reader);//Read an attribute tag
195
196		//Position
197		if(ReadPositions && Reader->getNodeName()==string("position"))
198		{
199		aiVector3D NewPos;
200		NewPos.x=GetAttribute<float>(Reader, "x");
201		NewPos.y=GetAttribute<float>(Reader, "y");
202		NewPos.z=GetAttribute<float>(Reader, "z");
203		theSubMesh.Positions.push_back(NewPos);
204		}
205
206		//Normal
207		else if(ReadNormals && Reader->getNodeName()==string("normal"))
208		{
209		aiVector3D NewNormal;
210		NewNormal.x=GetAttribute<float>(Reader, "x");
211		NewNormal.y=GetAttribute<float>(Reader, "y");
212		NewNormal.z=GetAttribute<float>(Reader, "z");
213		theSubMesh.Normals.push_back(NewNormal);
214		}
215
216		//Tangent
217		else if(ReadTangents && Reader->getNodeName()==string("tangent"))
218		{
219		aiVector3D NewTangent;
220		NewTangent.x=GetAttribute<float>(Reader, "x");
221		NewTangent.y=GetAttribute<float>(Reader, "y");
222		NewTangent.z=GetAttribute<float>(Reader, "z");
223		theSubMesh.Tangents.push_back(NewTangent);
224		}
225
226		//Uv:
227		else if(NumUvs>0 && Reader->getNodeName()==string("texcoord"))
228		{
229		for(unsigned int i=0; i<NumUvs; ++i)
230		{
231		if(Reader->getNodeName()!=string("texcoord"))
232		{
233		DefaultLogger::get()->warn(string("Not enough UVs in Vertex: ")+Reader->getNodeName());
234		}
235		aiVector3D NewUv;
236		NewUv.x=GetAttribute<float>(Reader, "u");
237		NewUv.y=GetAttribute<float>(Reader, "v")*(-1)+1;//flip the uv vertikal, blender exports them so!
238		theSubMesh.Uvs[i].push_back(NewUv);
239		XmlRead(Reader);
240		}
241		continue;//because we already read the next node...
242		}
243
244		//Color:
245		//TODO: actually save this data!
246		else if(Reader->getNodeName()==string("colour_diffuse"))
247		{
248		//do nothing, because we not yet support them
249		}
250
251		//Attribute could not be read
252		else
253		{
254		DefaultLogger::get()->warn(string("Attribute was not read: ")+Reader->getNodeName());
255		}
256
257		XmlRead(Reader);//Read the Vertex tag
258		}
259		}
260
261
262		void OgreImporter::ReadBoneWeights(SubMesh &theSubMesh, XmlReader *Reader)
263		{
264		theSubMesh.Weights.resize(theSubMesh.Positions.size());
265		while(XmlRead(Reader) && Reader->getNodeName()==string("vertexboneassignment"))
266		{
267		Weight NewWeight;
268		unsigned int VertexId=GetAttribute<int>(Reader, "vertexindex");
269		NewWeight.BoneId=GetAttribute<int>(Reader, "boneindex");
270		NewWeight.Value=GetAttribute<float>(Reader, "weight");
271		//calculate the number of bones used (this is the highest id +1 becuase bone ids start at 0)
272		theSubMesh.BonesUsed=max(theSubMesh.BonesUsed, NewWeight.BoneId+1);
273
274		theSubMesh.Weights[VertexId].push_back(NewWeight);
275		}
276		}
277
278
279
280		void OgreImporter::ProcessSubMesh(SubMesh &theSubMesh, SubMesh &theSharedGeometry)
281		{
282		//---------------Make all Vertexes unique: (this is required by assimp)-----------------------
283		vector<Face> UniqueFaceList(theSubMesh.FaceList.size());
284		unsigned int UniqueVertexCount=theSubMesh.FaceList.size()3;//3 because each face consists of 3 vertexes, because we only support triangles^^
285
286		vector<aiVector3D> UniquePositions(UniqueVertexCount);
287
288		vector<aiVector3D> UniqueNormals(UniqueVertexCount);
289
290		vector<aiVector3D> UniqueTangents(UniqueVertexCount);
291
292		vector< vector<Weight> > UniqueWeights(UniqueVertexCount);
293
294		vector< vector<aiVector3D> > UniqueUvs(theSubMesh.Uvs.size());
295		for(unsigned int i=0; i<UniqueUvs.size(); ++i) UniqueUvs[i].resize(UniqueVertexCount);
296
297
298
299		//Support for shared data:
300		/*We can use this loop to copy vertex informations from the shared data pool. In order to do so
301		we just use a reference to a submodel instead of our submodel itself*/
302
303		SubMesh& VertexSource= theSubMesh.SharedData ? theSharedGeometry : theSubMesh;
304		if(theSubMesh.SharedData)//copy vertexinformations to our mesh:
305		{
306		theSubMesh.HasPositions=theSharedGeometry.HasPositions;
307		theSubMesh.HasNormals=theSharedGeometry.HasNormals;
308		theSubMesh.HasTangents=theSharedGeometry.HasTangents;
309
310		theSubMesh.BonesUsed=theSharedGeometry.BonesUsed;
311
312		UniqueUvs.resize(theSharedGeometry.Uvs.size());
313		for(unsigned int i=0; i<UniqueUvs.size(); ++i) UniqueUvs[i].resize(UniqueVertexCount);
314		}
315
316		for(unsigned int i=0; i<theSubMesh.FaceList.size(); ++i)
317		{
318		//We precalculate the index vlaues her, because we need them in all vertex attributes
319		unsigned int Vertex1=theSubMesh.FaceList[i].VertexIndices[0];
320		unsigned int Vertex2=theSubMesh.FaceList[i].VertexIndices[1];
321		unsigned int Vertex3=theSubMesh.FaceList[i].VertexIndices[2];
322
323		UniquePositions[3*i+0]=VertexSource.Positions[Vertex1];
324		UniquePositions[3*i+1]=VertexSource.Positions[Vertex2];
325		UniquePositions[3*i+2]=VertexSource.Positions[Vertex3];
326
327		if(VertexSource.HasNormals)
328		{
329		UniqueNormals[3*i+0]=VertexSource.Normals[Vertex1];
330		UniqueNormals[3*i+1]=VertexSource.Normals[Vertex2];
331		UniqueNormals[3*i+2]=VertexSource.Normals[Vertex3];
332		}
333
334		if(VertexSource.HasTangents)
335		{
336		UniqueTangents[3*i+0]=VertexSource.Tangents[Vertex1];
337		UniqueTangents[3*i+1]=VertexSource.Tangents[Vertex2];
338		UniqueTangents[3*i+2]=VertexSource.Tangents[Vertex3];
339		}
340
341		if(UniqueUvs.size()>0)
342		{
343		for(unsigned int j=0; j<UniqueUvs.size(); ++j)
344		{
345		UniqueUvs[j][3*i+0]=VertexSource.Uvs[j][Vertex1];
346		UniqueUvs[j][3*i+1]=VertexSource.Uvs[j][Vertex2];
347		UniqueUvs[j][3*i+2]=VertexSource.Uvs[j][Vertex3];
348		}
349		}
350
351		if(VertexSource.Weights.size() > 0)
352		{
353		UniqueWeights[3*i+0]=VertexSource.Weights[Vertex1];
354		UniqueWeights[3*i+1]=VertexSource.Weights[Vertex2];
355		UniqueWeights[3*i+2]=VertexSource.Weights[Vertex3];
356		}
357
358		//The indexvalues a just continuous numbers (0, 1, 2, 3, 4, 5, 6...)
359		UniqueFaceList[i].VertexIndices[0]=3*i+0;
360		UniqueFaceList[i].VertexIndices[1]=3*i+1;
361		UniqueFaceList[i].VertexIndices[2]=3*i+2;
362		}
363		//_________________________________________________________________________________________
364
365		//now we have the unique datas, but want them in the SubMesh, so we swap all the containers:
366		//if we don't have one of them, we just swap empty containers, so everything is ok
367		theSubMesh.FaceList.swap(UniqueFaceList);
368		theSubMesh.Positions.swap(UniquePositions);
369		theSubMesh.Normals.swap(UniqueNormals);
370		theSubMesh.Tangents.swap(UniqueTangents);
371		theSubMesh.Uvs.swap(UniqueUvs);
372		theSubMesh.Weights.swap(UniqueWeights);
373
374
375
376		//------------- normalize weights -----------------------------
377		//The Blender exporter doesn't care about whether the sum of all boneweights for a single vertex equals 1 or not,
378		//so we have to make this sure:
379		for(unsigned int VertexId=0; VertexId<theSubMesh.Weights.size(); ++VertexId)//iterate over all vertices
380		{
381		float WeightSum=0.0f;
382		for(unsigned int BoneId=0; BoneId<theSubMesh.Weights[VertexId].size(); ++BoneId)//iterate over all bones
383		{
384		WeightSum+=theSubMesh.Weights[VertexId][BoneId].Value;
385		}
386
387		//check if the sum is too far away from 1
388		if(WeightSum<1.0f-0.05f \|\| WeightSum>1.0f+0.05f)
389		{
390		//normalize all weights:
391		for(unsigned int BoneId=0; BoneId<theSubMesh.Weights[VertexId].size(); ++BoneId)//iterate over all bones
392		{
393		theSubMesh.Weights[VertexId][BoneId].Value/=WeightSum;
394		}
395		}
396		}
397		//_________________________________________________________
398		}
399
400
401
402
403		aiMesh* OgreImporter::CreateAssimpSubMesh(const SubMesh& theSubMesh, const vector<Bone>& Bones) const
404		{
405		const aiScene* const m_CurrentScene=this->m_CurrentScene;//make sure, that we can access but not change the scene
406		(void)m_CurrentScene;
407
408		aiMesh* NewAiMesh=new aiMesh();
409
410		//Positions
411		NewAiMesh->mVertices=new aiVector3D[theSubMesh.Positions.size()];
412		memcpy(NewAiMesh->mVertices, &theSubMesh.Positions[0], theSubMesh.Positions.size()*sizeof(aiVector3D));
413		NewAiMesh->mNumVertices=theSubMesh.Positions.size();
414
415		//Normals
416		if(theSubMesh.HasNormals)
417		{
418		NewAiMesh->mNormals=new aiVector3D[theSubMesh.Normals.size()];
419		memcpy(NewAiMesh->mNormals, &theSubMesh.Normals[0], theSubMesh.Normals.size()*sizeof(aiVector3D));
420		}
421
422
423		//until we have support for bitangents, no tangents will be written
424		/*
425		//Tangents
426		if(theSubMesh.HasTangents)
427		{
428		NewAiMesh->mTangents=new aiVector3D[theSubMesh.Tangents.size()];
429		memcpy(NewAiMesh->mTangents, &theSubMesh.Tangents[0], theSubMesh.Tangents.size()*sizeof(aiVector3D));
430		}
431		*/
432
433		//Uvs
434		if(theSubMesh.Uvs.size()>0)
435		{
436		for(unsigned int i=0; i<theSubMesh.Uvs.size(); ++i)
437		{
438		NewAiMesh->mNumUVComponents[i]=2;
439		NewAiMesh->mTextureCoords[i]=new aiVector3D[theSubMesh.Uvs[i].size()];
440		memcpy(NewAiMesh->mTextureCoords[i], &(theSubMesh.Uvs[i][0]), theSubMesh.Uvs[i].size()*sizeof(aiVector3D));
441		}
442		}
443
444
445		//---------------------------------------- Bones --------------------------------------------
446
447		//Copy the weights in in Bone-Vertices Struktur
448		//(we have them in a Vertex-Bones Structur, this is much easier for making them unique, which is required by assimp
449		vector< vector<aiVertexWeight> > aiWeights(theSubMesh.BonesUsed);//now the outer list are the bones, and the inner vector the vertices
450		for(unsigned int VertexId=0; VertexId<theSubMesh.Weights.size(); ++VertexId)//iterate over all vertices
451		{
452		for(unsigned int BoneId=0; BoneId<theSubMesh.Weights[VertexId].size(); ++BoneId)//iterate over all bones
453		{
454		aiVertexWeight NewWeight;
455		NewWeight.mVertexId=VertexId;//the current Vertex, we can't use the Id form the submehs weights, because they are bone id's
456		NewWeight.mWeight=theSubMesh.Weights[VertexId][BoneId].Value;
457		aiWeights[theSubMesh.Weights[VertexId][BoneId].BoneId].push_back(NewWeight);
458		}
459		}
460
461
462
463		vector<aiBone*> aiBones;
464		aiBones.reserve(theSubMesh.BonesUsed);//the vector might be smaller, because there might be empty bones (bones that are not attached to any vertex)
465
466		//create all the bones and fill them with informations
467		for(unsigned int i=0; i<theSubMesh.BonesUsed; ++i)
468		{
469		if(aiWeights[i].size()>0)
470		{
471		aiBone* NewBone=new aiBone();
472		NewBone->mNumWeights=aiWeights[i].size();
473		NewBone->mWeights=new aiVertexWeight[aiWeights[i].size()];
474		memcpy(NewBone->mWeights, &(aiWeights[i][0]), sizeof(aiVertexWeight)*aiWeights[i].size());
475		NewBone->mName=Bones[i].Name;//The bone list should be sorted after its id's, this was done in LoadSkeleton
476		NewBone->mOffsetMatrix=Bones[i].BoneToWorldSpace;
477
478		aiBones.push_back(NewBone);
479		}
480		}
481		NewAiMesh->mNumBones=aiBones.size();
482
483		// mBones must be NULL if mNumBones is non 0 or the validation fails.
484		if (aiBones.size()) {
485		NewAiMesh->mBones=new aiBone* [aiBones.size()];
486		memcpy(NewAiMesh->mBones, &(aiBones[0]), aiBones.size()sizeof(aiBone));
487		}
488
489		//______________________________________________________________________________________________________
490
491
492
493		//Faces
494		NewAiMesh->mFaces=new aiFace[theSubMesh.FaceList.size()];
495		for(unsigned int i=0; i<theSubMesh.FaceList.size(); ++i)
496		{
497		NewAiMesh->mFaces[i].mNumIndices=3;
498		NewAiMesh->mFaces[i].mIndices=new unsigned int[3];
499
500		NewAiMesh->mFaces[i].mIndices[0]=theSubMesh.FaceList[i].VertexIndices[0];
501		NewAiMesh->mFaces[i].mIndices[1]=theSubMesh.FaceList[i].VertexIndices[1];
502		NewAiMesh->mFaces[i].mIndices[2]=theSubMesh.FaceList[i].VertexIndices[2];
503		}
504		NewAiMesh->mNumFaces=theSubMesh.FaceList.size();
505
506		//Link the material:
507		NewAiMesh->mMaterialIndex=theSubMesh.MaterialIndex;//the index is set by the function who called ReadSubMesh
508
509		return NewAiMesh;
510		}
511
512
513		}//namespace Ogre
514		}//namespace Assimp
515
516		#endif // !! ASSIMP_BUILD_NO_OGRE_IMPORTER

+139

-0

code/OgreParsingUtils.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	#ifndef AI_OGREPARSINGUTILS_H_INC
	41	#define AI_OGREPARSINGUTILS_H_INC
	42
	43	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
	44
	45	#include "ParsingUtils.h"
	46	#include <functional>
	47
	48	namespace Assimp
	49	{
	50	namespace Ogre
	51	{
	52
	53	/// Returns a lower cased copy of @s.
	54	static inline std::string ToLower(std::string s)
	55	{
	56	std::transform(s.begin(), s.end(), s.begin(), ::tolower);
	57	return s;
	58	}
	59
	60	/// Returns if @c s ends with @c suffix. If @c caseSensitive is false, both strings will be lower cased before matching.
	61	static inline bool EndsWith(const std::string &s, const std::string &suffix, bool caseSensitive = true)
	62	{
	63	if (s.empty() \|\| suffix.empty())
	64	{
	65	return false;
	66	}
	67	else if (s.length() < suffix.length())
	68	{
	69	return false;
	70	}
	71
	72	if (!caseSensitive) {
	73	return EndsWith(ToLower(s), ToLower(suffix), true);
	74	}
	75
	76	size_t len = suffix.length();
	77	std::string sSuffix = s.substr(s.length()-len, len);
	78	return (ASSIMP_stricmp(sSuffix, suffix) == 0);
	79	}
	80
	81	// Below trim functions adapted from http://stackoverflow.com/questions/216823/whats-the-best-way-to-trim-stdstring
	82
	83	/// Trim from start
	84	static inline std::string &TrimLeft(std::string &s, bool newlines = true)
	85	{
	86	if (!newlines)
	87	{
	88	s.erase(s.begin(), std::find_if(s.begin(), s.end(), std::not1(std::ptr_fun(Assimp::IsSpace<char>))));
	89	}
	90	else
	91	{
	92	s.erase(s.begin(), std::find_if(s.begin(), s.end(), std::not1(std::ptr_fun(Assimp::IsSpaceOrNewLine<char>))));
	93	}
	94	return s;
	95	}
	96
	97	/// Trim from end
	98	static inline std::string &TrimRight(std::string &s, bool newlines = true)
	99	{
	100	if (!newlines)
	101	{
	102	s.erase(std::find_if(s.rbegin(), s.rend(), std::not1(std::ptr_fun(Assimp::IsSpace<char>))).base(),s.end());
	103	}
	104	else
	105	{
	106	s.erase(s.begin(), std::find_if(s.begin(), s.end(), std::not1(std::ptr_fun(Assimp::IsSpaceOrNewLine<char>))));
	107	}
	108	return s;
	109	}
	110
	111	/// Trim from both ends
	112	static inline std::string &Trim(std::string &s, bool newlines = true)
	113	{
	114	return TrimLeft(TrimRight(s, newlines), newlines);
	115	}
	116
	117	/// Skips a line from current @ss position until a newline. Returns the skipped part.
	118	static inline std::string SkipLine(std::stringstream &ss)
	119	{
	120	std::string skipped;
	121	getline(ss, skipped);
	122	return skipped;
	123	}
	124
	125	/// Skips a line and reads next element from @c ss to @c nextElement.
	126	/** @return Skipped line content until newline. */
	127	static inline std::string NextAfterNewLine(std::stringstream &ss, std::string &nextElement)
	128	{
	129	std::string skipped = SkipLine(ss);
	130	ss >> nextElement;
	131	return skipped;
	132	}
	133
	134	} // Ogre
	135	} // Assimp
	136
	137	#endif // ASSIMP_BUILD_NO_OGRE_IMPORTER
	138	#endif // AI_OGREPARSINGUTILS_H_INC

-453

~~code/OgreSkeleton.cpp~~ less more

0		/*
1		Open Asset Import Library (assimp)
2		----------------------------------------------------------------------
3
4		Copyright (c) 2006-2012, assimp team
5		All rights reserved.
6
7		Redistribution and use of this software in source and binary forms,
8		with or without modification, are permitted provided that the
9		following conditions are met:
10
11		* Redistributions of source code must retain the above
12		copyright notice, this list of conditions and the
13		following disclaimer.
14
15		* Redistributions in binary form must reproduce the above
16		copyright notice, this list of conditions and the
17		following disclaimer in the documentation and/or other
18		materials provided with the distribution.
19
20		* Neither the name of the assimp team, nor the names of its
21		contributors may be used to endorse or promote products
22		derived from this software without specific prior
23		written permission of the assimp team.
24
25		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
26		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
27		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
28		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
29		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
30		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
31		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
32		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
33		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
34		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
35		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
36
37		----------------------------------------------------------------------
38		*/
39
40		#include "AssimpPCH.h"
41
42		#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
43
44		#include "OgreImporter.hpp"
45		#include "TinyFormatter.h"
46
47		using namespace std;
48
49		namespace Assimp
50		{
51		namespace Ogre
52		{
53
54
55
56		void OgreImporter::LoadSkeleton(std::string FileName, vector<Bone> &Bones, vector<Animation> &Animations) const
57		{
58		const aiScene* const m_CurrentScene=this->m_CurrentScene;//make sure, that we can access but not change the scene
59		(void)m_CurrentScene;
60
61
62		//most likely the skeleton file will only end with .skeleton
63		//But this is a xml reader, so we need: .skeleton.xml
64		FileName+=".xml";
65
66		DefaultLogger::get()->debug(string("Loading Skeleton: ")+FileName);
67
68		//Open the File:
69		boost::scoped_ptr<IOStream> File(m_CurrentIOHandler->Open(FileName));
70		if(NULL==File.get())
71		throw DeadlyImportError("Failed to open skeleton file "+FileName+".");
72
73		//Read the Mesh File:
74		boost::scoped_ptr<CIrrXML_IOStreamReader> mIOWrapper(new CIrrXML_IOStreamReader(File.get()));
75		XmlReader* SkeletonFile = irr::io::createIrrXMLReader(mIOWrapper.get());
76		if(!SkeletonFile)
77		throw DeadlyImportError(string("Failed to create XML Reader for ")+FileName);
78
79		//Quick note: Whoever read this should know this one thing: irrXml fucking sucks!!!
80
81		XmlRead(SkeletonFile);
82		if(string("skeleton")!=SkeletonFile->getNodeName())
83		throw DeadlyImportError("No <skeleton> node in SkeletonFile: "+FileName);
84
85
86
87		//------------------------------------load bones-----------------------------------------
88		XmlRead(SkeletonFile);
89		if(string("bones")!=SkeletonFile->getNodeName())
90		throw DeadlyImportError("No bones node in skeleton "+FileName);
91
92		XmlRead(SkeletonFile);
93
94		while(string("bone")==SkeletonFile->getNodeName())
95		{
96		//TODO: Maybe we can have bone ids for the errrors, but normaly, they should never appear, so what....
97
98		//read a new bone:
99		Bone NewBone;
100		NewBone.Id=GetAttribute<int>(SkeletonFile, "id");
101		NewBone.Name=GetAttribute<string>(SkeletonFile, "name");
102
103		//load the position:
104		XmlRead(SkeletonFile);
105		if(string("position")!=SkeletonFile->getNodeName())
106		throw DeadlyImportError("Position is not first node in Bone!");
107		NewBone.Position.x=GetAttribute<float>(SkeletonFile, "x");
108		NewBone.Position.y=GetAttribute<float>(SkeletonFile, "y");
109		NewBone.Position.z=GetAttribute<float>(SkeletonFile, "z");
110
111		//Rotation:
112		XmlRead(SkeletonFile);
113		if(string("rotation")!=SkeletonFile->getNodeName())
114		throw DeadlyImportError("Rotation is not the second node in Bone!");
115		NewBone.RotationAngle=GetAttribute<float>(SkeletonFile, "angle");
116		XmlRead(SkeletonFile);
117		if(string("axis")!=SkeletonFile->getNodeName())
118		throw DeadlyImportError("No axis specified for bone rotation!");
119		NewBone.RotationAxis.x=GetAttribute<float>(SkeletonFile, "x");
120		NewBone.RotationAxis.y=GetAttribute<float>(SkeletonFile, "y");
121		NewBone.RotationAxis.z=GetAttribute<float>(SkeletonFile, "z");
122
123		//append the newly loaded bone to the bone list
124		Bones.push_back(NewBone);
125
126		//Proceed to the next bone:
127		XmlRead(SkeletonFile);
128		}
129		//The bones in the file a not neccesarly ordered by there id's so we do it now:
130		std::sort(Bones.begin(), Bones.end());
131
132		//now the id of each bone should be equal to its position in the vector:
133		//so we do a simple check:
134		{
135		bool IdsOk=true;
136		for(int i=0; i<static_cast<signed int>(Bones.size()); ++i)//i is signed, because all Id's are also signed!
137		{
138		if(Bones[i].Id!=i)
139		IdsOk=false;
140		}
141		if(!IdsOk)
142		throw DeadlyImportError("Bone Ids are not valid!"+FileName);
143		}
144		DefaultLogger::get()->debug((Formatter::format(),"Number of bones: ",Bones.size()));
145		//________________________________________________________________________________
146
147
148
149
150
151
152		//----------------------------load bonehierarchy--------------------------------
153		if(string("bonehierarchy")!=SkeletonFile->getNodeName())
154		throw DeadlyImportError("no bonehierarchy node in "+FileName);
155
156		DefaultLogger::get()->debug("loading bonehierarchy...");
157		XmlRead(SkeletonFile);
158		while(string("boneparent")==SkeletonFile->getNodeName())
159		{
160		string Child, Parent;
161		Child=GetAttribute<string>(SkeletonFile, "bone");
162		Parent=GetAttribute<string>(SkeletonFile, "parent");
163
164		unsigned int ChildId, ParentId;
165		ChildId=find(Bones.begin(), Bones.end(), Child)->Id;
166		ParentId=find(Bones.begin(), Bones.end(), Parent)->Id;
167
168		Bones[ChildId].ParentId=ParentId;
169		Bones[ParentId].Children.push_back(ChildId);
170
171		XmlRead(SkeletonFile);//I once forget this line, which led to an endless loop, did i mentioned, that irrxml sucks??
172		}
173		//_____________________________________________________________________________
174
175
176		//--------- Calculate the WorldToBoneSpace Matrix recursivly for all bones: ------------------
177		BOOST_FOREACH(Bone &theBone, Bones)
178		{
179		if(-1==theBone.ParentId) //the bone is a root bone
180		{
181		theBone.CalculateBoneToWorldSpaceMatrix(Bones);
182		}
183		}
184		//_______________________________________________________________________
185
186
187		//---------------------------load animations-----------------------------
188		if(string("animations")==SkeletonFile->getNodeName())//animations are optional values
189		{
190		DefaultLogger::get()->debug("Loading Animations");
191		XmlRead(SkeletonFile);
192		while(string("animation")==SkeletonFile->getNodeName())
193		{
194		Animation NewAnimation;
195		NewAnimation.Name=GetAttribute<string>(SkeletonFile, "name");
196		NewAnimation.Length=GetAttribute<float>(SkeletonFile, "length");
197
198		//Load all Tracks
199		XmlRead(SkeletonFile);
200		if(string("tracks")!=SkeletonFile->getNodeName())
201		throw DeadlyImportError("no tracks node in animation");
202		XmlRead(SkeletonFile);
203		while(string("track")==SkeletonFile->getNodeName())
204		{
205		Track NewTrack;
206		NewTrack.BoneName=GetAttribute<string>(SkeletonFile, "bone");
207
208		//Load all keyframes;
209		XmlRead(SkeletonFile);
210		if(string("keyframes")!=SkeletonFile->getNodeName())
211		throw DeadlyImportError("no keyframes node!");
212		XmlRead(SkeletonFile);
213		while(string("keyframe")==SkeletonFile->getNodeName())
214		{
215		Keyframe NewKeyframe;
216		NewKeyframe.Time=GetAttribute<float>(SkeletonFile, "time");
217
218		//loop over the attributes:
219
220		while(true) //will quit, if a Node is not a animationkey
221		{
222		XmlRead(SkeletonFile);
223
224		//If any property doesn't show up, it will keep its initialization value
225
226		//Position:
227		if(string("translate")==SkeletonFile->getNodeName())
228		{
229		NewKeyframe.Position.x=GetAttribute<float>(SkeletonFile, "x");
230		NewKeyframe.Position.y=GetAttribute<float>(SkeletonFile, "y");
231		NewKeyframe.Position.z=GetAttribute<float>(SkeletonFile, "z");
232		}
233
234		//Rotation:
235		else if(string("rotate")==SkeletonFile->getNodeName())
236		{
237		float RotationAngle=GetAttribute<float>(SkeletonFile, "angle");
238		aiVector3D RotationAxis;
239		XmlRead(SkeletonFile);
240		if(string("axis")!=SkeletonFile->getNodeName())
241		throw DeadlyImportError("No axis for keyframe rotation!");
242		RotationAxis.x=GetAttribute<float>(SkeletonFile, "x");
243		RotationAxis.y=GetAttribute<float>(SkeletonFile, "y");
244		RotationAxis.z=GetAttribute<float>(SkeletonFile, "z");
245
246		if(0==RotationAxis.x && 0==RotationAxis.y && 0==RotationAxis.z)//we have an invalid rotation axis
247		{
248		RotationAxis.x=1.0f;
249		if(0!=RotationAngle)//if we don't rotate at all, the axis does not matter
250		{
251		DefaultLogger::get()->warn("Invalid Rotation Axis in Keyframe!");
252		}
253		}
254		NewKeyframe.Rotation=aiQuaternion(RotationAxis, RotationAngle);
255		}
256
257		//Scaling:
258		else if(string("scale")==SkeletonFile->getNodeName())
259		{
260		NewKeyframe.Scaling.x=GetAttribute<float>(SkeletonFile, "x");
261		NewKeyframe.Scaling.y=GetAttribute<float>(SkeletonFile, "y");
262		NewKeyframe.Scaling.z=GetAttribute<float>(SkeletonFile, "z");
263		}
264
265		//we suppose, that we read all attributes and this is a new keyframe or the end of the animation
266		else
267		break;
268		}
269
270		NewTrack.Keyframes.push_back(NewKeyframe);
271		}
272
273		NewAnimation.Tracks.push_back(NewTrack);
274		}
275
276		Animations.push_back(NewAnimation);
277		}
278		}
279		//_____________________________________________________________________________
280
281		}
282
283
284		void OgreImporter::CreateAssimpSkeleton(const std::vector<Bone> &Bones, const std::vector<Animation> &/Animations/)
285		{
286		if(!m_CurrentScene->mRootNode)
287		throw DeadlyImportError("No root node exists!!");
288		if(0!=m_CurrentScene->mRootNode->mNumChildren)
289		throw DeadlyImportError("Root Node already has childnodes!");
290
291
292		//Createt the assimp bone hierarchy
293		vector<aiNode*> RootBoneNodes;
294		BOOST_FOREACH(const Bone &theBone, Bones)
295		{
296		if(-1==theBone.ParentId) //the bone is a root bone
297		{
298		//which will recursily add all other nodes
299		RootBoneNodes.push_back(CreateAiNodeFromBone(theBone.Id, Bones, m_CurrentScene->mRootNode));
300		}
301		}
302
303		if(RootBoneNodes.size() > 0)
304		{
305		m_CurrentScene->mRootNode->mNumChildren=RootBoneNodes.size();
306		m_CurrentScene->mRootNode->mChildren=new aiNode*[RootBoneNodes.size()];
307		memcpy(m_CurrentScene->mRootNode->mChildren, &RootBoneNodes[0], sizeof(aiNode)RootBoneNodes.size());
308		}
309		}
310
311
312		void OgreImporter::PutAnimationsInScene(const std::vector<Bone> &Bones, const std::vector<Animation> &Animations)
313		{
314		//-----------------Create the Assimp Animations --------------------
315		if(Animations.size()>0)//Maybe the model had only a skeleton and no animations. (If it also has no skeleton, this function would'nt have been called
316		{
317		m_CurrentScene->mNumAnimations=Animations.size();
318		m_CurrentScene->mAnimations=new aiAnimation*[Animations.size()];
319		for(unsigned int i=0; i<Animations.size(); ++i)//create all animations
320		{
321		aiAnimation* NewAnimation=new aiAnimation();
322		NewAnimation->mName=Animations[i].Name;
323		NewAnimation->mDuration=Animations[i].Length;
324		NewAnimation->mTicksPerSecond=1.0f;
325
326		//Create all tracks in this animation
327		NewAnimation->mNumChannels=Animations[i].Tracks.size();
328		NewAnimation->mChannels=new aiNodeAnim*[Animations[i].Tracks.size()];
329		for(unsigned int j=0; j<Animations[i].Tracks.size(); ++j)
330		{
331		aiNodeAnim* NewNodeAnim=new aiNodeAnim();
332		NewNodeAnim->mNodeName=Animations[i].Tracks[j].BoneName;
333
334		//we need this, to acces the bones default pose, which we need to make keys absolute to the default bone pose
335		vector<Bone>::const_iterator CurBone=find(Bones.begin(), Bones.end(), NewNodeAnim->mNodeName);
336		aiMatrix4x4 t0, t1;
337		aiMatrix4x4 DefBonePose=aiMatrix4x4::Translation(CurBone->Position, t1)
338		* aiMatrix4x4::Rotation(CurBone->RotationAngle, CurBone->RotationAxis, t0);
339
340
341		//Create the keyframe arrays...
342		unsigned int KeyframeCount=Animations[i].Tracks[j].Keyframes.size();
343		NewNodeAnim->mNumPositionKeys=KeyframeCount;
344		NewNodeAnim->mNumRotationKeys=KeyframeCount;
345		NewNodeAnim->mNumScalingKeys =KeyframeCount;
346		NewNodeAnim->mPositionKeys=new aiVectorKey[KeyframeCount];
347		NewNodeAnim->mRotationKeys=new aiQuatKey[KeyframeCount];
348		NewNodeAnim->mScalingKeys =new aiVectorKey[KeyframeCount];
349
350		//...and fill them
351		for(unsigned int k=0; k<KeyframeCount; ++k)
352		{
353		aiMatrix4x4 t2, t3;
354
355		//Create a matrix to transfrom a vector from the bones default pose to the bone bones in this animation key
356		aiMatrix4x4 PoseToKey=
357		aiMatrix4x4::Translation(Animations[i].Tracks[j].Keyframes[k].Position, t3) //pos
358		* aiMatrix4x4(Animations[i].Tracks[j].Keyframes[k].Rotation.GetMatrix()) //rot
359		* aiMatrix4x4::Scaling(Animations[i].Tracks[j].Keyframes[k].Scaling, t2); //scale
360
361
362		//calculate the complete transformation from world space to bone space
363		aiMatrix4x4 CompleteTransform=DefBonePose * PoseToKey;
364
365		aiVector3D Pos;
366		aiQuaternion Rot;
367		aiVector3D Scale;
368
369		CompleteTransform.Decompose(Scale, Rot, Pos);
370
371		double Time=Animations[i].Tracks[j].Keyframes[k].Time;
372
373		NewNodeAnim->mPositionKeys[k].mTime=Time;
374		NewNodeAnim->mPositionKeys[k].mValue=Pos;
375
376		NewNodeAnim->mRotationKeys[k].mTime=Time;
377		NewNodeAnim->mRotationKeys[k].mValue=Rot;
378
379		NewNodeAnim->mScalingKeys[k].mTime=Time;
380		NewNodeAnim->mScalingKeys[k].mValue=Scale;
381		}
382
383		NewAnimation->mChannels[j]=NewNodeAnim;
384		}
385
386		m_CurrentScene->mAnimations[i]=NewAnimation;
387		}
388		}
389		//TODO: Auf nicht vorhandene Animationskeys achten!
390		//#pragma warning (s.o.)
391		//__________________________________________________________________
392		}
393
394
395		aiNode* OgreImporter::CreateAiNodeFromBone(int BoneId, const std::vector<Bone> &Bones, aiNode* ParentNode)
396		{
397		//----Create the node for this bone and set its values-----
398		aiNode* NewNode=new aiNode(Bones[BoneId].Name);
399		NewNode->mParent=ParentNode;
400
401		aiMatrix4x4 t0,t1;
402		NewNode->mTransformation=
403		aiMatrix4x4::Translation(Bones[BoneId].Position, t0)
404		*aiMatrix4x4::Rotation(Bones[BoneId].RotationAngle, Bones[BoneId].RotationAxis, t1)
405		;
406		//__________________________________________________________
407
408
409		//---------- recursivly create all children Nodes: ----------
410		NewNode->mNumChildren=Bones[BoneId].Children.size();
411		NewNode->mChildren=new aiNode*[Bones[BoneId].Children.size()];
412		for(unsigned int i=0; i<Bones[BoneId].Children.size(); ++i)
413		{
414		NewNode->mChildren[i]=CreateAiNodeFromBone(Bones[BoneId].Children[i], Bones, NewNode);
415		}
416		//____________________________________________________
417
418
419		return NewNode;
420		}
421
422
423		void Bone::CalculateBoneToWorldSpaceMatrix(vector<Bone> &Bones)
424		{
425		//Calculate the matrix for this bone:
426
427		aiMatrix4x4 t0,t1;
428		aiMatrix4x4 Transf= aiMatrix4x4::Rotation(-RotationAngle, RotationAxis, t1)
429		* aiMatrix4x4::Translation(-Position, t0);
430
431		if(-1==ParentId)
432		{
433		BoneToWorldSpace=Transf;
434		}
435		else
436		{
437		BoneToWorldSpace=Transf*Bones[ParentId].BoneToWorldSpace;
438		}
439
440
441		//and recursivly for all children:
442		BOOST_FOREACH(int theChildren, Children)
443		{
444		Bones[theChildren].CalculateBoneToWorldSpaceMatrix(Bones);
445		}
446		}
447
448
449		}//namespace Ogre
450		}//namespace Assimp
451
452		#endif // !! ASSIMP_BUILD_NO_OGRE_IMPORTER

+1193

-0

code/OgreStructs.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
	41
	42	#include "OgreStructs.h"
	43	#include "TinyFormatter.h"
	44
	45	namespace Assimp
	46	{
	47	namespace Ogre
	48	{
	49
	50	// VertexElement
	51
	52	VertexElement::VertexElement() :
	53	index(0),
	54	source(0),
	55	offset(0),
	56	type(VET_FLOAT1),
	57	semantic(VES_POSITION)
	58	{
	59	}
	60
	61	size_t VertexElement::Size() const
	62	{
	63	return TypeSize(type);
	64	}
	65
	66	size_t VertexElement::ComponentCount() const
	67	{
	68	return ComponentCount(type);
	69	}
	70
	71	size_t VertexElement::ComponentCount(Type type)
	72	{
	73	switch(type)
	74	{
	75	case VET_COLOUR:
	76	case VET_COLOUR_ABGR:
	77	case VET_COLOUR_ARGB:
	78	case VET_FLOAT1:
	79	case VET_DOUBLE1:
	80	case VET_SHORT1:
	81	case VET_USHORT1:
	82	case VET_INT1:
	83	case VET_UINT1:
	84	return 1;
	85	case VET_FLOAT2:
	86	case VET_DOUBLE2:
	87	case VET_SHORT2:
	88	case VET_USHORT2:
	89	case VET_INT2:
	90	case VET_UINT2:
	91	return 2;
	92	case VET_FLOAT3:
	93	case VET_DOUBLE3:
	94	case VET_SHORT3:
	95	case VET_USHORT3:
	96	case VET_INT3:
	97	case VET_UINT3:
	98	return 3;
	99	case VET_FLOAT4:
	100	case VET_DOUBLE4:
	101	case VET_SHORT4:
	102	case VET_USHORT4:
	103	case VET_INT4:
	104	case VET_UINT4:
	105	case VET_UBYTE4:
	106	return 4;
	107	}
	108	return 0;
	109	}
	110
	111	size_t VertexElement::TypeSize(Type type)
	112	{
	113	switch(type)
	114	{
	115	case VET_COLOUR:
	116	case VET_COLOUR_ABGR:
	117	case VET_COLOUR_ARGB:
	118	return sizeof(unsigned int);
	119	case VET_FLOAT1:
	120	return sizeof(float);
	121	case VET_FLOAT2:
	122	return sizeof(float)*2;
	123	case VET_FLOAT3:
	124	return sizeof(float)*3;
	125	case VET_FLOAT4:
	126	return sizeof(float)*4;
	127	case VET_DOUBLE1:
	128	return sizeof(double);
	129	case VET_DOUBLE2:
	130	return sizeof(double)*2;
	131	case VET_DOUBLE3:
	132	return sizeof(double)*3;
	133	case VET_DOUBLE4:
	134	return sizeof(double)*4;
	135	case VET_SHORT1:
	136	return sizeof(short);
	137	case VET_SHORT2:
	138	return sizeof(short)*2;
	139	case VET_SHORT3:
	140	return sizeof(short)*3;
	141	case VET_SHORT4:
	142	return sizeof(short)*4;
	143	case VET_USHORT1:
	144	return sizeof(unsigned short);
	145	case VET_USHORT2:
	146	return sizeof(unsigned short)*2;
	147	case VET_USHORT3:
	148	return sizeof(unsigned short)*3;
	149	case VET_USHORT4:
	150	return sizeof(unsigned short)*4;
	151	case VET_INT1:
	152	return sizeof(int);
	153	case VET_INT2:
	154	return sizeof(int)*2;
	155	case VET_INT3:
	156	return sizeof(int)*3;
	157	case VET_INT4:
	158	return sizeof(int)*4;
	159	case VET_UINT1:
	160	return sizeof(unsigned int);
	161	case VET_UINT2:
	162	return sizeof(unsigned int)*2;
	163	case VET_UINT3:
	164	return sizeof(unsigned int)*3;
	165	case VET_UINT4:
	166	return sizeof(unsigned int)*4;
	167	case VET_UBYTE4:
	168	return sizeof(unsigned char)*4;
	169	}
	170	return 0;
	171	}
	172
	173	std::string VertexElement::TypeToString()
	174	{
	175	return TypeToString(type);
	176	}
	177
	178	std::string VertexElement::TypeToString(Type type)
	179	{
	180	switch(type)
	181	{
	182	case VET_COLOUR: return "COLOUR";
	183	case VET_COLOUR_ABGR: return "COLOUR_ABGR";
	184	case VET_COLOUR_ARGB: return "COLOUR_ARGB";
	185	case VET_FLOAT1: return "FLOAT1";
	186	case VET_FLOAT2: return "FLOAT2";
	187	case VET_FLOAT3: return "FLOAT3";
	188	case VET_FLOAT4: return "FLOAT4";
	189	case VET_DOUBLE1: return "DOUBLE1";
	190	case VET_DOUBLE2: return "DOUBLE2";
	191	case VET_DOUBLE3: return "DOUBLE3";
	192	case VET_DOUBLE4: return "DOUBLE4";
	193	case VET_SHORT1: return "SHORT1";
	194	case VET_SHORT2: return "SHORT2";
	195	case VET_SHORT3: return "SHORT3";
	196	case VET_SHORT4: return "SHORT4";
	197	case VET_USHORT1: return "USHORT1";
	198	case VET_USHORT2: return "USHORT2";
	199	case VET_USHORT3: return "USHORT3";
	200	case VET_USHORT4: return "USHORT4";
	201	case VET_INT1: return "INT1";
	202	case VET_INT2: return "INT2";
	203	case VET_INT3: return "INT3";
	204	case VET_INT4: return "INT4";
	205	case VET_UINT1: return "UINT1";
	206	case VET_UINT2: return "UINT2";
	207	case VET_UINT3: return "UINT3";
	208	case VET_UINT4: return "UINT4";
	209	case VET_UBYTE4: return "UBYTE4";
	210	}
	211	return "Uknown_VertexElement::Type";
	212	}
	213
	214	std::string VertexElement::SemanticToString()
	215	{
	216	return SemanticToString(semantic);
	217	}
	218
	219	std::string VertexElement::SemanticToString(Semantic semantic)
	220	{
	221	switch(semantic)
	222	{
	223	case VES_POSITION: return "POSITION";
	224	case VES_BLEND_WEIGHTS: return "BLEND_WEIGHTS";
	225	case VES_BLEND_INDICES: return "BLEND_INDICES";
	226	case VES_NORMAL: return "NORMAL";
	227	case VES_DIFFUSE: return "DIFFUSE";
	228	case VES_SPECULAR: return "SPECULAR";
	229	case VES_TEXTURE_COORDINATES: return "TEXTURE_COORDINATES";
	230	case VES_BINORMAL: return "BINORMAL";
	231	case VES_TANGENT: return "TANGENT";
	232	}
	233	return "Uknown_VertexElement::Semantic";
	234	}
	235
	236	// IVertexData
	237
	238	IVertexData::IVertexData() :
	239	count(0)
	240	{
	241	}
	242
	243	bool IVertexData::HasBoneAssignments() const
	244	{
	245	return !boneAssignments.empty();
	246	}
	247
	248	void IVertexData::AddVertexMapping(uint32_t oldIndex, uint32_t newIndex)
	249	{
	250	BoneAssignmentsForVertex(oldIndex, newIndex, boneAssignmentsMap[newIndex]);
	251	vertexIndexMapping[oldIndex].push_back(newIndex);
	252	}
	253
	254	void IVertexData::BoneAssignmentsForVertex(uint32_t currentIndex, uint32_t newIndex, VertexBoneAssignmentList &dest) const
	255	{
	256	for (VertexBoneAssignmentList::const_iterator iter=boneAssignments.begin(), end=boneAssignments.end();
	257	iter!=end; ++iter)
	258	{
	259	if (iter->vertexIndex == currentIndex)
	260	{
	261	VertexBoneAssignment a = (*iter);
	262	a.vertexIndex = newIndex;
	263	dest.push_back(a);
	264	}
	265	}
	266	}
	267
	268	AssimpVertexBoneWeightList IVertexData::AssimpBoneWeights(size_t vertices)
	269	{
	270	AssimpVertexBoneWeightList weights;
	271	for(size_t vi=0; vi<vertices; ++vi)
	272	{
	273	VertexBoneAssignmentList &vertexWeights = boneAssignmentsMap[vi];
	274	for (VertexBoneAssignmentList::const_iterator iter=vertexWeights.begin(), end=vertexWeights.end();
	275	iter!=end; ++iter)
	276	{
	277	std::vector<aiVertexWeight> &boneWeights = weights[iter->boneIndex];
	278	boneWeights.push_back(aiVertexWeight(vi, iter->weight));
	279	}
	280	}
	281	return weights;
	282	}
	283
	284	std::set<uint16_t> IVertexData::ReferencedBonesByWeights() const
	285	{
	286	std::set<uint16_t> referenced;
	287	for (VertexBoneAssignmentList::const_iterator iter=boneAssignments.begin(), end=boneAssignments.end();
	288	iter!=end; ++iter)
	289	{
	290	referenced.insert(iter->boneIndex);
	291	}
	292	return referenced;
	293	}
	294
	295	// VertexData
	296
	297	VertexData::VertexData()
	298	{
	299	}
	300
	301	VertexData::~VertexData()
	302	{
	303	Reset();
	304	}
	305
	306	void VertexData::Reset()
	307	{
	308	// Releases shared ptr memory streams.
	309	vertexBindings.clear();
	310	vertexElements.clear();
	311	}
	312
	313	uint32_t VertexData::VertexSize(uint16_t source) const
	314	{
	315	uint32_t size = 0;
	316	for(VertexElementList::const_iterator iter=vertexElements.begin(), end=vertexElements.end(); iter != end; ++iter)
	317	{
	318	if (iter->source == source)
	319	size += iter->Size();
	320	}
	321	return size;
	322	}
	323
	324	MemoryStream *VertexData::VertexBuffer(uint16_t source)
	325	{
	326	if (vertexBindings.find(source) != vertexBindings.end())
	327	return vertexBindings[source].get();
	328	return 0;
	329	}
	330
	331	VertexElement *VertexData::GetVertexElement(VertexElement::Semantic semantic, uint16_t index)
	332	{
	333	for(VertexElementList::iterator iter=vertexElements.begin(), end=vertexElements.end(); iter != end; ++iter)
	334	{
	335	VertexElement &element = (*iter);
	336	if (element.semantic == semantic && element.index == index)
	337	return &element;
	338	}
	339	return 0;
	340	}
	341
	342	// VertexDataXml
	343
	344	VertexDataXml::VertexDataXml()
	345	{
	346	}
	347
	348	bool VertexDataXml::HasPositions() const
	349	{
	350	return !positions.empty();
	351	}
	352
	353	bool VertexDataXml::HasNormals() const
	354	{
	355	return !normals.empty();
	356	}
	357
	358	bool VertexDataXml::HasTangents() const
	359	{
	360	return !tangents.empty();
	361	}
	362
	363	bool VertexDataXml::HasUvs() const
	364	{
	365	return !uvs.empty();
	366	}
	367
	368	size_t VertexDataXml::NumUvs() const
	369	{
	370	return uvs.size();
	371	}
	372
	373	// IndexData
	374
	375	IndexData::IndexData() :
	376	count(0),
	377	faceCount(0),
	378	is32bit(false)
	379	{
	380	}
	381
	382	IndexData::~IndexData()
	383	{
	384	Reset();
	385	}
	386
	387	void IndexData::Reset()
	388	{
	389	// Release shared ptr memory stream.
	390	buffer.reset();
	391	}
	392
	393	size_t IndexData::IndexSize() const
	394	{
	395	return (is32bit ? sizeof(uint32_t) : sizeof(uint16_t));
	396	}
	397
	398	size_t IndexData::FaceSize() const
	399	{
	400	return IndexSize() * 3;
	401	}
	402
	403	// Mesh
	404
	405	Mesh::Mesh() :
	406	sharedVertexData(0),
	407	skeleton(0),
	408	hasSkeletalAnimations(false)
	409	{
	410	}
	411
	412	Mesh::~Mesh()
	413	{
	414	Reset();
	415	}
	416
	417	void Mesh::Reset()
	418	{
	419	OGRE_SAFE_DELETE(skeleton)
	420	OGRE_SAFE_DELETE(sharedVertexData)
	421
	422	for(size_t i=0, len=subMeshes.size(); i<len; ++i) {
	423	OGRE_SAFE_DELETE(subMeshes[i])
	424	}
	425	subMeshes.clear();
	426	for(size_t i=0, len=animations.size(); i<len; ++i) {
	427	OGRE_SAFE_DELETE(animations[i])
	428	}
	429	animations.clear();
	430	for(size_t i=0, len=poses.size(); i<len; ++i) {
	431	OGRE_SAFE_DELETE(poses[i])
	432	}
	433	poses.clear();
	434	}
	435
	436	size_t Mesh::NumSubMeshes() const
	437	{
	438	return subMeshes.size();
	439	}
	440
	441	SubMesh *Mesh::GetSubMesh(uint16_t index) const
	442	{
	443	for(size_t i=0; i<subMeshes.size(); ++i)
	444	if (subMeshes[i]->index == index)
	445	return subMeshes[i];
	446	return 0;
	447	}
	448
	449	void Mesh::ConvertToAssimpScene(aiScene* dest)
	450	{
	451	// Setup
	452	dest->mNumMeshes = NumSubMeshes();
	453	dest->mMeshes = new aiMesh*[dest->mNumMeshes];
	454
	455	// Create root node
	456	dest->mRootNode = new aiNode();
	457	dest->mRootNode->mNumMeshes = dest->mNumMeshes;
	458	dest->mRootNode->mMeshes = new unsigned int[dest->mRootNode->mNumMeshes];
	459
	460	// Export meshes
	461	for(size_t i=0; i<dest->mNumMeshes; ++i)
	462	{
	463	dest->mMeshes[i] = subMeshes[i]->ConvertToAssimpMesh(this);
	464	dest->mRootNode->mMeshes[i] = i;
	465	}
	466
	467	// Export skeleton
	468	if (skeleton)
	469	{
	470	// Bones
	471	if (!skeleton->bones.empty())
	472	{
	473	BoneList rootBones = skeleton->RootBones();
	474	dest->mRootNode->mNumChildren = rootBones.size();
	475	dest->mRootNode->mChildren = new aiNode*[dest->mRootNode->mNumChildren];
	476
	477	for(size_t i=0, len=rootBones.size(); i<len; ++i)
	478	{
	479	dest->mRootNode->mChildren[i] = rootBones[i]->ConvertToAssimpNode(skeleton, dest->mRootNode);
	480	}
	481	}
	482
	483	// Animations
	484	if (!skeleton->animations.empty())
	485	{
	486	dest->mNumAnimations = skeleton->animations.size();
	487	dest->mAnimations = new aiAnimation*[dest->mNumAnimations];
	488
	489	for(size_t i=0, len=skeleton->animations.size(); i<len; ++i)
	490	{
	491	dest->mAnimations[i] = skeleton->animations[i]->ConvertToAssimpAnimation();
	492	}
	493	}
	494	}
	495	}
	496
	497	// ISubMesh
	498
	499	ISubMesh::ISubMesh() :
	500	index(0),
	501	materialIndex(-1),
	502	usesSharedVertexData(false),
	503	operationType(OT_POINT_LIST)
	504	{
	505	}
	506
	507	// SubMesh
	508
	509	SubMesh::SubMesh() :
	510	vertexData(0),
	511	indexData(new IndexData())
	512	{
	513	}
	514
	515	SubMesh::~SubMesh()
	516	{
	517	Reset();
	518	}
	519
	520	void SubMesh::Reset()
	521	{
	522	OGRE_SAFE_DELETE(vertexData)
	523	OGRE_SAFE_DELETE(indexData)
	524	}
	525
	526	aiMesh SubMesh::ConvertToAssimpMesh(Mesh parent)
	527	{
	528	if (operationType != OT_TRIANGLE_LIST) {
	529	throw DeadlyImportError(Formatter::format() << "Only mesh operation type OT_TRIANGLE_LIST is supported. Found " << operationType);
	530	}
	531
	532	aiMesh *dest = new aiMesh();
	533	dest->mPrimitiveTypes = aiPrimitiveType_TRIANGLE;
	534
	535	if (!name.empty())
	536	dest->mName = name;
	537
	538	// Material index
	539	if (materialIndex != -1)
	540	dest->mMaterialIndex = materialIndex;
	541
	542	// Pick source vertex data from shader geometry or from internal geometry.
	543	VertexData *src = (!usesSharedVertexData ? vertexData : parent->sharedVertexData);
	544
	545	VertexElement *positionsElement = src->GetVertexElement(VertexElement::VES_POSITION);
	546	VertexElement *normalsElement = src->GetVertexElement(VertexElement::VES_NORMAL);
	547	VertexElement *uv1Element = src->GetVertexElement(VertexElement::VES_TEXTURE_COORDINATES, 0);
	548	VertexElement *uv2Element = src->GetVertexElement(VertexElement::VES_TEXTURE_COORDINATES, 1);
	549
	550	// Sanity checks
	551	if (!positionsElement) {
	552	throw DeadlyImportError("Failed to import Ogre VertexElement::VES_POSITION. Mesh does not have vertex positions!");
	553	} else if (positionsElement->type != VertexElement::VET_FLOAT3) {
	554	throw DeadlyImportError("Ogre Mesh position vertex element type != VertexElement::VET_FLOAT3. This is not supported.");
	555	} else if (normalsElement && normalsElement->type != VertexElement::VET_FLOAT3) {
	556	throw DeadlyImportError("Ogre Mesh normal vertex element type != VertexElement::VET_FLOAT3. This is not supported.");
	557	}
	558
	559	// Faces
	560	dest->mNumFaces = indexData->faceCount;
	561	dest->mFaces = new aiFace[dest->mNumFaces];
	562
	563	// Assimp required unique vertices, we need to convert from Ogres shared indexing.
	564	size_t uniqueVertexCount = dest->mNumFaces * 3;
	565	dest->mNumVertices = uniqueVertexCount;
	566	dest->mVertices = new aiVector3D[dest->mNumVertices];
	567
	568	// Source streams
	569	MemoryStream *positions = src->VertexBuffer(positionsElement->source);
	570	MemoryStream *normals = (normalsElement ? src->VertexBuffer(normalsElement->source) : 0);
	571	MemoryStream *uv1 = (uv1Element ? src->VertexBuffer(uv1Element->source) : 0);
	572	MemoryStream *uv2 = (uv2Element ? src->VertexBuffer(uv2Element->source) : 0);
	573
	574	// Element size
	575	const size_t sizePosition = positionsElement->Size();
	576	const size_t sizeNormal = (normalsElement ? normalsElement->Size() : 0);
	577	const size_t sizeUv1 = (uv1Element ? uv1Element->Size() : 0);
	578	const size_t sizeUv2 = (uv2Element ? uv2Element->Size() : 0);
	579
	580	// Vertex width
	581	const size_t vWidthPosition = src->VertexSize(positionsElement->source);
	582	const size_t vWidthNormal = (normalsElement ? src->VertexSize(normalsElement->source) : 0);
	583	const size_t vWidthUv1 = (uv1Element ? src->VertexSize(uv1Element->source) : 0);
	584	const size_t vWidthUv2 = (uv2Element ? src->VertexSize(uv2Element->source) : 0);
	585
	586	bool boneAssignments = src->HasBoneAssignments();
	587
	588	// Prepare normals
	589	if (normals)
	590	dest->mNormals = new aiVector3D[dest->mNumVertices];
	591
	592	// Prepare UVs, ignoring incompatible UVs.
	593	if (uv1)
	594	{
	595	if (uv1Element->type == VertexElement::VET_FLOAT2 \|\| uv1Element->type == VertexElement::VET_FLOAT3)
	596	{
	597	dest->mNumUVComponents[0] = uv1Element->ComponentCount();
	598	dest->mTextureCoords[0] = new aiVector3D[dest->mNumVertices];
	599	}
	600	else
	601	{
	602	DefaultLogger::get()->warn(Formatter::format() << "Ogre imported UV0 type " << uv1Element->TypeToString() << " is not compatible with Assimp. Ignoring UV.");
	603	uv1 = 0;
	604	}
	605	}
	606	if (uv2)
	607	{
	608	if (uv2Element->type == VertexElement::VET_FLOAT2 \|\| uv2Element->type == VertexElement::VET_FLOAT3)
	609	{
	610	dest->mNumUVComponents[1] = uv2Element->ComponentCount();
	611	dest->mTextureCoords[1] = new aiVector3D[dest->mNumVertices];
	612	}
	613	else
	614	{
	615	DefaultLogger::get()->warn(Formatter::format() << "Ogre imported UV0 type " << uv2Element->TypeToString() << " is not compatible with Assimp. Ignoring UV.");
	616	uv2 = 0;
	617	}
	618	}
	619
	620	aiVector3D *uv1Dest = (uv1 ? dest->mTextureCoords[0] : 0);
	621	aiVector3D *uv2Dest = (uv2 ? dest->mTextureCoords[1] : 0);
	622
	623	MemoryStream *faces = indexData->buffer.get();
	624	for (size_t fi=0, isize=indexData->IndexSize(), fsize=indexData->FaceSize();
	625	fi<dest->mNumFaces; ++fi)
	626	{
	627	// Source Ogre face
	628	aiFace ogreFace;
	629	ogreFace.mNumIndices = 3;
	630	ogreFace.mIndices = new unsigned int[3];
	631
	632	faces->Seek(fi * fsize, aiOrigin_SET);
	633	if (indexData->is32bit)
	634	{
	635	faces->Read(&ogreFace.mIndices[0], isize, 3);
	636	}
	637	else
	638	{
	639	uint16_t iout = 0;
	640	for (size_t ii=0; ii<3; ++ii)
	641	{
	642	faces->Read(&iout, isize, 1);
	643	ogreFace.mIndices[ii] = static_cast<unsigned int>(iout);
	644	}
	645	}
	646
	647	// Destination Assimp face
	648	aiFace &face = dest->mFaces[fi];
	649	face.mNumIndices = 3;
	650	face.mIndices = new unsigned int[3];
	651
	652	const size_t pos = fi * 3;
	653	for (size_t v=0; v<3; ++v)
	654	{
	655	const size_t newIndex = pos + v;
	656
	657	// Write face index
	658	face.mIndices[v] = newIndex;
	659
	660	// Ogres vertex index to ref into the source buffers.
	661	const size_t ogreVertexIndex = ogreFace.mIndices[v];
	662	src->AddVertexMapping(ogreVertexIndex, newIndex);
	663
	664	// Position
	665	positions->Seek((vWidthPosition * ogreVertexIndex) + positionsElement->offset, aiOrigin_SET);
	666	positions->Read(&dest->mVertices[newIndex], sizePosition, 1);
	667
	668	// Normal
	669	if (normals)
	670	{
	671	normals->Seek((vWidthNormal * ogreVertexIndex) + normalsElement->offset, aiOrigin_SET);
	672	normals->Read(&dest->mNormals[newIndex], sizeNormal, 1);
	673	}
	674	// UV0
	675	if (uv1 && uv1Dest)
	676	{
	677	uv1->Seek((vWidthUv1 * ogreVertexIndex) + uv1Element->offset, aiOrigin_SET);
	678	uv1->Read(&uv1Dest[newIndex], sizeUv1, 1);
	679	uv1Dest[newIndex].y = (uv1Dest[newIndex].y * -1) + 1; // Flip UV from Ogre to Assimp form
	680	}
	681	// UV1
	682	if (uv2 && uv2Dest)
	683	{
	684	uv2->Seek((vWidthUv2 * ogreVertexIndex) + uv2Element->offset, aiOrigin_SET);
	685	uv2->Read(&uv2Dest[newIndex], sizeUv2, 1);
	686	uv2Dest[newIndex].y = (uv2Dest[newIndex].y * -1) + 1; // Flip UV from Ogre to Assimp form
	687	}
	688	}
	689	}
	690
	691	// Bones and bone weights
	692	if (parent->skeleton && boneAssignments)
	693	{
	694	AssimpVertexBoneWeightList weights = src->AssimpBoneWeights(dest->mNumVertices);
	695	std::set<uint16_t> referencedBones = src->ReferencedBonesByWeights();
	696
	697	dest->mNumBones = referencedBones.size();
	698	dest->mBones = new aiBone*[dest->mNumBones];
	699
	700	size_t assimpBoneIndex = 0;
	701	for(std::set<uint16_t>::const_iterator rbIter=referencedBones.begin(), rbEnd=referencedBones.end(); rbIter != rbEnd; ++rbIter, ++assimpBoneIndex)
	702	{
	703	Bone bone = parent->skeleton->BoneById((rbIter));
	704	dest->mBones[assimpBoneIndex] = bone->ConvertToAssimpBone(parent->skeleton, weights[bone->id]);
	705	}
	706	}
	707
	708	return dest;
	709	}
	710
	711	// MeshXml
	712
	713	MeshXml::MeshXml() :
	714	sharedVertexData(0),
	715	skeleton(0)
	716	{
	717	}
	718
	719	MeshXml::~MeshXml()
	720	{
	721	Reset();
	722	}
	723
	724	void MeshXml::Reset()
	725	{
	726	OGRE_SAFE_DELETE(skeleton)
	727	OGRE_SAFE_DELETE(sharedVertexData)
	728
	729	for(size_t i=0, len=subMeshes.size(); i<len; ++i) {
	730	OGRE_SAFE_DELETE(subMeshes[i])
	731	}
	732	subMeshes.clear();
	733	}
	734
	735	size_t MeshXml::NumSubMeshes() const
	736	{
	737	return subMeshes.size();
	738	}
	739
	740	SubMeshXml *MeshXml::GetSubMesh(uint16_t index) const
	741	{
	742	for(size_t i=0; i<subMeshes.size(); ++i)
	743	if (subMeshes[i]->index == index)
	744	return subMeshes[i];
	745	return 0;
	746	}
	747
	748	void MeshXml::ConvertToAssimpScene(aiScene* dest)
	749	{
	750	// Setup
	751	dest->mNumMeshes = NumSubMeshes();
	752	dest->mMeshes = new aiMesh*[dest->mNumMeshes];
	753
	754	// Create root node
	755	dest->mRootNode = new aiNode();
	756	dest->mRootNode->mNumMeshes = dest->mNumMeshes;
	757	dest->mRootNode->mMeshes = new unsigned int[dest->mRootNode->mNumMeshes];
	758
	759	// Export meshes
	760	for(size_t i=0; i<dest->mNumMeshes; ++i)
	761	{
	762	dest->mMeshes[i] = subMeshes[i]->ConvertToAssimpMesh(this);
	763	dest->mRootNode->mMeshes[i] = i;
	764	}
	765
	766	// Export skeleton
	767	if (skeleton)
	768	{
	769	// Bones
	770	if (!skeleton->bones.empty())
	771	{
	772	BoneList rootBones = skeleton->RootBones();
	773	dest->mRootNode->mNumChildren = rootBones.size();
	774	dest->mRootNode->mChildren = new aiNode*[dest->mRootNode->mNumChildren];
	775
	776	for(size_t i=0, len=rootBones.size(); i<len; ++i)
	777	{
	778	dest->mRootNode->mChildren[i] = rootBones[i]->ConvertToAssimpNode(skeleton, dest->mRootNode);
	779	}
	780	}
	781
	782	// Animations
	783	if (!skeleton->animations.empty())
	784	{
	785	dest->mNumAnimations = skeleton->animations.size();
	786	dest->mAnimations = new aiAnimation*[dest->mNumAnimations];
	787
	788	for(size_t i=0, len=skeleton->animations.size(); i<len; ++i)
	789	{
	790	dest->mAnimations[i] = skeleton->animations[i]->ConvertToAssimpAnimation();
	791	}
	792	}
	793	}
	794	}
	795
	796	// SubMeshXml
	797
	798	SubMeshXml::SubMeshXml() :
	799	vertexData(0),
	800	indexData(new IndexDataXml())
	801	{
	802	}
	803
	804	SubMeshXml::~SubMeshXml()
	805	{
	806	Reset();
	807	}
	808
	809	void SubMeshXml::Reset()
	810	{
	811	OGRE_SAFE_DELETE(indexData)
	812	OGRE_SAFE_DELETE(vertexData)
	813	}
	814
	815	aiMesh SubMeshXml::ConvertToAssimpMesh(MeshXml parent)
	816	{
	817	aiMesh *dest = new aiMesh();
	818	dest->mPrimitiveTypes = aiPrimitiveType_TRIANGLE;
	819
	820	if (!name.empty())
	821	dest->mName = name;
	822
	823	// Material index
	824	if (materialIndex != -1)
	825	dest->mMaterialIndex = materialIndex;
	826
	827	// Faces
	828	dest->mNumFaces = indexData->faceCount;
	829	dest->mFaces = new aiFace[dest->mNumFaces];
	830
	831	// Assimp required unique vertices, we need to convert from Ogres shared indexing.
	832	size_t uniqueVertexCount = dest->mNumFaces * 3;
	833	dest->mNumVertices = uniqueVertexCount;
	834	dest->mVertices = new aiVector3D[dest->mNumVertices];
	835
	836	VertexDataXml *src = (!usesSharedVertexData ? vertexData : parent->sharedVertexData);
	837	bool boneAssignments = src->HasBoneAssignments();
	838	bool normals = src->HasNormals();
	839	size_t uvs = src->NumUvs();
	840
	841	// Prepare normals
	842	if (normals)
	843	dest->mNormals = new aiVector3D[dest->mNumVertices];
	844
	845	// Prepare UVs
	846	for(size_t uvi=0; uvi<uvs; ++uvi)
	847	{
	848	dest->mNumUVComponents[uvi] = 2;
	849	dest->mTextureCoords[uvi] = new aiVector3D[dest->mNumVertices];
	850	}
	851
	852	for (size_t fi=0; fi<dest->mNumFaces; ++fi)
	853	{
	854	// Source Ogre face
	855	aiFace &ogreFace = indexData->faces[fi];
	856
	857	// Destination Assimp face
	858	aiFace &face = dest->mFaces[fi];
	859	face.mNumIndices = 3;
	860	face.mIndices = new unsigned int[3];
	861
	862	const size_t pos = fi * 3;
	863	for (size_t v=0; v<3; ++v)
	864	{
	865	const size_t newIndex = pos + v;
	866
	867	// Write face index
	868	face.mIndices[v] = newIndex;
	869
	870	// Ogres vertex index to ref into the source buffers.
	871	const size_t ogreVertexIndex = ogreFace.mIndices[v];
	872	src->AddVertexMapping(ogreVertexIndex, newIndex);
	873
	874	// Position
	875	dest->mVertices[newIndex] = src->positions[ogreVertexIndex];
	876
	877	// Normal
	878	if (normals)
	879	dest->mNormals[newIndex] = src->normals[ogreVertexIndex];
	880
	881	// UVs
	882	for(size_t uvi=0; uvi<uvs; ++uvi)
	883	{
	884	aiVector3D *uvDest = dest->mTextureCoords[uvi];
	885	std::vector<aiVector3D> &uvSrc = src->uvs[uvi];
	886	uvDest[newIndex] = uvSrc[ogreVertexIndex];
	887	}
	888	}
	889	}
	890
	891	// Bones and bone weights
	892	if (parent->skeleton && boneAssignments)
	893	{
	894	AssimpVertexBoneWeightList weights = src->AssimpBoneWeights(dest->mNumVertices);
	895	std::set<uint16_t> referencedBones = src->ReferencedBonesByWeights();
	896
	897	dest->mNumBones = referencedBones.size();
	898	dest->mBones = new aiBone*[dest->mNumBones];
	899
	900	size_t assimpBoneIndex = 0;
	901	for(std::set<uint16_t>::const_iterator rbIter=referencedBones.begin(), rbEnd=referencedBones.end(); rbIter != rbEnd; ++rbIter, ++assimpBoneIndex)
	902	{
	903	Bone bone = parent->skeleton->BoneById((rbIter));
	904	dest->mBones[assimpBoneIndex] = bone->ConvertToAssimpBone(parent->skeleton, weights[bone->id]);
	905	}
	906	}
	907
	908	return dest;
	909	}
	910
	911	// Animation
	912
	913	Animation::Animation(Skeleton *parent) :
	914	parentSkeleton(parent),
	915	parentMesh(0),
	916	length(0.0f),
	917	baseTime(-1.0f)
	918	{
	919	}
	920
	921	Animation::Animation(Mesh *parent) :
	922	parentMesh(parent),
	923	parentSkeleton(0),
	924	length(0.0f),
	925	baseTime(-1.0f)
	926	{
	927	}
	928
	929	VertexData Animation::AssociatedVertexData(VertexAnimationTrack track) const
	930	{
	931	if (!parentMesh)
	932	return 0;
	933
	934	bool sharedGeom = (track->target == 0);
	935	if (sharedGeom)
	936	return parentMesh->sharedVertexData;
	937	else
	938	return parentMesh->GetSubMesh(track->target-1)->vertexData;
	939	}
	940
	941	aiAnimation *Animation::ConvertToAssimpAnimation()
	942	{
	943	aiAnimation *anim = new aiAnimation();
	944	anim->mName = name;
	945	anim->mDuration = static_cast<double>(length);
	946	anim->mTicksPerSecond = 1.0;
	947
	948	// Tracks
	949	if (!tracks.empty())
	950	{
	951	anim->mNumChannels = tracks.size();
	952	anim->mChannels = new aiNodeAnim*[anim->mNumChannels];
	953
	954	for(size_t i=0, len=tracks.size(); i<len; ++i)
	955	{
	956	anim->mChannels[i] = tracks[i].ConvertToAssimpAnimationNode(parentSkeleton);
	957	}
	958	}
	959	return anim;
	960	}
	961
	962	// Skeleton
	963
	964	Skeleton::Skeleton() :
	965	blendMode(ANIMBLEND_AVERAGE)
	966	{
	967	}
	968
	969	Skeleton::~Skeleton()
	970	{
	971	Reset();
	972	}
	973
	974	void Skeleton::Reset()
	975	{
	976	for(size_t i=0, len=bones.size(); i<len; ++i) {
	977	OGRE_SAFE_DELETE(bones[i])
	978	}
	979	bones.clear();
	980	for(size_t i=0, len=animations.size(); i<len; ++i) {
	981	OGRE_SAFE_DELETE(animations[i])
	982	}
	983	animations.clear();
	984	}
	985
	986	BoneList Skeleton::RootBones() const
	987	{
	988	BoneList rootBones;
	989	for(BoneList::const_iterator iter = bones.begin(); iter != bones.end(); ++iter)
	990	{
	991	if (!(*iter)->IsParented())
	992	rootBones.push_back((*iter));
	993	}
	994	return rootBones;
	995	}
	996
	997	size_t Skeleton::NumRootBones() const
	998	{
	999	size_t num = 0;
	1000	for(BoneList::const_iterator iter = bones.begin(); iter != bones.end(); ++iter)
	1001	{
	1002	if (!(*iter)->IsParented())
	1003	num++;
	1004	}
	1005	return num;
	1006	}
	1007
	1008	Bone *Skeleton::BoneByName(const std::string &name) const
	1009	{
	1010	for(BoneList::const_iterator iter = bones.begin(); iter != bones.end(); ++iter)
	1011	{
	1012	if ((*iter)->name == name)
	1013	return (*iter);
	1014	}
	1015	return 0;
	1016	}
	1017
	1018	Bone *Skeleton::BoneById(uint16_t id) const
	1019	{
	1020	for(BoneList::const_iterator iter = bones.begin(); iter != bones.end(); ++iter)
	1021	{
	1022	if ((*iter)->id == id)
	1023	return (*iter);
	1024	}
	1025	return 0;
	1026	}
	1027
	1028	// Bone
	1029
	1030	Bone::Bone() :
	1031	id(0),
	1032	parent(0),
	1033	parentId(-1),
	1034	scale(1.0f, 1.0f, 1.0f)
	1035	{
	1036	}
	1037
	1038	bool Bone::IsParented() const
	1039	{
	1040	return (parentId != -1 && parent != 0);
	1041	}
	1042
	1043	uint16_t Bone::ParentId() const
	1044	{
	1045	return static_cast<uint16_t>(parentId);
	1046	}
	1047
	1048	void Bone::AddChild(Bone *bone)
	1049	{
	1050	if (!bone)
	1051	return;
	1052	if (bone->IsParented())
	1053	throw DeadlyImportError("Attaching child Bone that is already parented: " + bone->name);
	1054
	1055	bone->parent = this;
	1056	bone->parentId = id;
	1057	children.push_back(bone->id);
	1058	}
	1059
	1060	void Bone::CalculateWorldMatrixAndDefaultPose(Skeleton *skeleton)
	1061	{
	1062	if (!IsParented())
	1063	worldMatrix = aiMatrix4x4(scale, rotation, position).Inverse();
	1064	else
	1065	worldMatrix = aiMatrix4x4(scale, rotation, position).Inverse() * parent->worldMatrix;
	1066
	1067	defaultPose = aiMatrix4x4(scale, rotation, position);
	1068
	1069	// Recursively for all children now that the parent matrix has been calculated.
	1070	for (size_t i=0, len=children.size(); i<len; ++i)
	1071	{
	1072	Bone *child = skeleton->BoneById(children[i]);
	1073	if (!child) {
	1074	throw DeadlyImportError(Formatter::format() << "CalculateWorldMatrixAndDefaultPose: Failed to find child bone " << children[i] << " for parent " << id << " " << name);
	1075	}
	1076	child->CalculateWorldMatrixAndDefaultPose(skeleton);
	1077	}
	1078	}
	1079
	1080	aiNode Bone::ConvertToAssimpNode(Skeleton skeleton, aiNode *parentNode)
	1081	{
	1082	// Bone node
	1083	aiNode* node = new aiNode(name);
	1084	node->mParent = parentNode;
	1085	node->mTransformation = defaultPose;
	1086
	1087	// Children
	1088	if (!children.empty())
	1089	{
	1090	node->mNumChildren = children.size();
	1091	node->mChildren = new aiNode*[node->mNumChildren];
	1092
	1093	for(size_t i=0, len=children.size(); i<len; ++i)
	1094	{
	1095	Bone *child = skeleton->BoneById(children[i]);
	1096	if (!child) {
	1097	throw DeadlyImportError(Formatter::format() << "ConvertToAssimpNode: Failed to find child bone " << children[i] << " for parent " << id << " " << name);
	1098	}
	1099	node->mChildren[i] = child->ConvertToAssimpNode(skeleton, node);
	1100	}
	1101	}
	1102	return node;
	1103	}
	1104
	1105	aiBone Bone::ConvertToAssimpBone(Skeleton parent, const std::vector<aiVertexWeight> &boneWeights)
	1106	{
	1107	aiBone *bone = new aiBone();
	1108	bone->mName = name;
	1109	bone->mOffsetMatrix = worldMatrix;
	1110
	1111	if (!boneWeights.empty())
	1112	{
	1113	bone->mNumWeights = boneWeights.size();
	1114	bone->mWeights = new aiVertexWeight[boneWeights.size()];
	1115	memcpy(bone->mWeights, &boneWeights[0], boneWeights.size() * sizeof(aiVertexWeight));
	1116	}
	1117
	1118	return bone;
	1119	}
	1120
	1121	// VertexAnimationTrack
	1122
	1123	VertexAnimationTrack::VertexAnimationTrack() :
	1124	target(0),
	1125	type(VAT_NONE)
	1126	{
	1127	}
	1128
	1129	aiNodeAnim VertexAnimationTrack::ConvertToAssimpAnimationNode(Skeleton skeleton)
	1130	{
	1131	if (boneName.empty() \|\| type != VAT_TRANSFORM) {
	1132	throw DeadlyImportError("VertexAnimationTrack::ConvertToAssimpAnimationNode: Cannot convert track that has no target bone name or is not type of VAT_TRANSFORM");
	1133	}
	1134
	1135	aiNodeAnim *nodeAnim = new aiNodeAnim();
	1136	nodeAnim->mNodeName = boneName;
	1137
	1138	Bone *bone = skeleton->BoneByName(boneName);
	1139	if (!bone) {
	1140	throw DeadlyImportError("VertexAnimationTrack::ConvertToAssimpAnimationNode: Failed to find bone " + boneName + " from parent Skeleton");
	1141	}
	1142
	1143	// Keyframes
	1144	size_t numKeyframes = transformKeyFrames.size();
	1145
	1146	nodeAnim->mPositionKeys = new aiVectorKey[numKeyframes];
	1147	nodeAnim->mRotationKeys = new aiQuatKey[numKeyframes];
	1148	nodeAnim->mScalingKeys = new aiVectorKey[numKeyframes];
	1149	nodeAnim->mNumPositionKeys = numKeyframes;
	1150	nodeAnim->mNumRotationKeys = numKeyframes;
	1151	nodeAnim->mNumScalingKeys = numKeyframes;
	1152
	1153	for(size_t kfi=0; kfi<numKeyframes; ++kfi)
	1154	{
	1155	TransformKeyFrame &kfSource = transformKeyFrames[kfi];
	1156
	1157	// Calculate the complete transformation from world space to bone space
	1158	aiVector3D pos; aiQuaternion rot; aiVector3D scale;
	1159
	1160	aiMatrix4x4 finalTransform = bone->defaultPose * kfSource.Transform();
	1161	finalTransform.Decompose(scale, rot, pos);
	1162
	1163	double t = static_cast<double>(kfSource.timePos);
	1164	nodeAnim->mPositionKeys[kfi].mTime = t;
	1165	nodeAnim->mRotationKeys[kfi].mTime = t;
	1166	nodeAnim->mScalingKeys[kfi].mTime = t;
	1167
	1168	nodeAnim->mPositionKeys[kfi].mValue = pos;
	1169	nodeAnim->mRotationKeys[kfi].mValue = rot;
	1170	nodeAnim->mScalingKeys[kfi].mValue = scale;
	1171	}
	1172
	1173	return nodeAnim;
	1174	}
	1175
	1176	// TransformKeyFrame
	1177
	1178	TransformKeyFrame::TransformKeyFrame() :
	1179	timePos(0.0f),
	1180	scale(1.0f, 1.0f, 1.0f)
	1181	{
	1182	}
	1183
	1184	aiMatrix4x4 TransformKeyFrame::Transform()
	1185	{
	1186	return aiMatrix4x4(scale, rotation, position);
	1187	}
	1188
	1189	} // Ogre
	1190	} // Assimp
	1191
	1192	#endif // ASSIMP_BUILD_NO_OGRE_IMPORTER

+681

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code/OgreStructs.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	#ifndef AI_OGRESTRUCTS_H_INC
	41	#define AI_OGRESTRUCTS_H_INC
	42
	43	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
	44
	45	#include "AssimpPCH.h"
	46	#include "MemoryIOWrapper.h"
	47
	48	/** @note Parts of this implementation, for example enums, deserialization constants and logic
	49	has been copied directly with minor modifications from the MIT licensed Ogre3D code base.
	50	See more from https://bitbucket.org/sinbad/ogre. */
	51
	52	namespace Assimp
	53	{
	54	namespace Ogre
	55	{
	56
	57	// Forward decl
	58	class Mesh;
	59	class MeshXml;
	60	class SubMesh;
	61	class SubMeshXml;
	62	class Skeleton;
	63
	64	#define OGRE_SAFE_DELETE(p) delete p; p=0;
	65
	66	// Typedefs
	67	typedef Assimp::MemoryIOStream MemoryStream;
	68	typedef boost::shared_ptr<MemoryStream> MemoryStreamPtr;
	69	typedef std::map<uint16_t, MemoryStreamPtr> VertexBufferBindings;
	70
	71	// Ogre Vertex Element
	72	class VertexElement
	73	{
	74	public:
	75	/// Vertex element semantics, used to identify the meaning of vertex buffer contents
	76	enum Semantic {
	77	/// Position, 3 reals per vertex
	78	VES_POSITION = 1,
	79	/// Blending weights
	80	VES_BLEND_WEIGHTS = 2,
	81	/// Blending indices
	82	VES_BLEND_INDICES = 3,
	83	/// Normal, 3 reals per vertex
	84	VES_NORMAL = 4,
	85	/// Diffuse colours
	86	VES_DIFFUSE = 5,
	87	/// Specular colours
	88	VES_SPECULAR = 6,
	89	/// Texture coordinates
	90	VES_TEXTURE_COORDINATES = 7,
	91	/// Binormal (Y axis if normal is Z)
	92	VES_BINORMAL = 8,
	93	/// Tangent (X axis if normal is Z)
	94	VES_TANGENT = 9,
	95	/// The number of VertexElementSemantic elements (note - the first value VES_POSITION is 1)
	96	VES_COUNT = 9
	97	};
	98
	99	/// Vertex element type, used to identify the base types of the vertex contents
	100	enum Type
	101	{
	102	VET_FLOAT1 = 0,
	103	VET_FLOAT2 = 1,
	104	VET_FLOAT3 = 2,
	105	VET_FLOAT4 = 3,
	106	/// alias to more specific colour type - use the current rendersystem's colour packing
	107	VET_COLOUR = 4,
	108	VET_SHORT1 = 5,
	109	VET_SHORT2 = 6,
	110	VET_SHORT3 = 7,
	111	VET_SHORT4 = 8,
	112	VET_UBYTE4 = 9,
	113	/// D3D style compact colour
	114	VET_COLOUR_ARGB = 10,
	115	/// GL style compact colour
	116	VET_COLOUR_ABGR = 11,
	117	VET_DOUBLE1 = 12,
	118	VET_DOUBLE2 = 13,
	119	VET_DOUBLE3 = 14,
	120	VET_DOUBLE4 = 15,
	121	VET_USHORT1 = 16,
	122	VET_USHORT2 = 17,
	123	VET_USHORT3 = 18,
	124	VET_USHORT4 = 19,
	125	VET_INT1 = 20,
	126	VET_INT2 = 21,
	127	VET_INT3 = 22,
	128	VET_INT4 = 23,
	129	VET_UINT1 = 24,
	130	VET_UINT2 = 25,
	131	VET_UINT3 = 26,
	132	VET_UINT4 = 27
	133	};
	134
	135	VertexElement();
	136
	137	/// Size of the vertex element in bytes.
	138	size_t Size() const;
	139
	140	/// Count of components in this element, eg. VET_FLOAT3 return 3.
	141	size_t ComponentCount() const;
	142
	143	/// Type as string.
	144	std::string TypeToString();
	145
	146	/// Semantic as string.
	147	std::string SemanticToString();
	148
	149	static size_t TypeSize(Type type);
	150	static size_t ComponentCount(Type type);
	151	static std::string TypeToString(Type type);
	152	static std::string SemanticToString(Semantic semantic);
	153
	154	uint16_t index;
	155	uint16_t source;
	156	uint16_t offset;
	157	Type type;
	158	Semantic semantic;
	159	};
	160	typedef std::vector<VertexElement> VertexElementList;
	161
	162	/// Ogre Vertex Bone Assignment
	163	struct VertexBoneAssignment
	164	{
	165	uint32_t vertexIndex;
	166	uint16_t boneIndex;
	167	float weight;
	168	};
	169	typedef std::vector<VertexBoneAssignment> VertexBoneAssignmentList;
	170	typedef std::map<uint32_t, VertexBoneAssignmentList > VertexBoneAssignmentsMap;
	171	typedef std::map<uint16_t, std::vector<aiVertexWeight> > AssimpVertexBoneWeightList;
	172
	173	// Ogre Vertex Data interface, inherited by the binary and XML implementations.
	174	class IVertexData
	175	{
	176	public:
	177	IVertexData();
	178
	179	/// Returns if bone assignments are available.
	180	bool HasBoneAssignments() const;
	181
	182	/// Add vertex mapping from old to new index.
	183	void AddVertexMapping(uint32_t oldIndex, uint32_t newIndex);
	184
	185	/// Returns re-mapped bone assignments.
	186	/** @note Uses mappings added via AddVertexMapping. */
	187	AssimpVertexBoneWeightList AssimpBoneWeights(size_t vertices);
	188
	189	/// Returns a set of bone indexes that are referenced by bone assignments (weights).
	190	std::set<uint16_t> ReferencedBonesByWeights() const;
	191
	192	/// Vertex count.
	193	uint32_t count;
	194
	195	/// Bone assignments.
	196	VertexBoneAssignmentList boneAssignments;
	197
	198	private:
	199	void BoneAssignmentsForVertex(uint32_t currentIndex, uint32_t newIndex, VertexBoneAssignmentList &dest) const;
	200
	201	std::map<uint32_t, std::vector<uint32_t> > vertexIndexMapping;
	202	VertexBoneAssignmentsMap boneAssignmentsMap;
	203	};
	204
	205	// Ogre Vertex Data
	206	class VertexData : public IVertexData
	207	{
	208	public:
	209	VertexData();
	210	~VertexData();
	211
	212	/// Releases all memory that this data structure owns.
	213	void Reset();
	214
	215	/// Get vertex size for @c source.
	216	uint32_t VertexSize(uint16_t source) const;
	217
	218	/// Get vertex buffer for @c source.
	219	MemoryStream *VertexBuffer(uint16_t source);
	220
	221	/// Get vertex element for @c semantic for @c index.
	222	VertexElement *GetVertexElement(VertexElement::Semantic semantic, uint16_t index = 0);
	223
	224	/// Vertex elements.
	225	VertexElementList vertexElements;
	226
	227	/// Vertex buffers mapped to bind index.
	228	VertexBufferBindings vertexBindings;
	229	};
	230
	231	// Ogre Index Data
	232	class IndexData
	233	{
	234	public:
	235	IndexData();
	236	~IndexData();
	237
	238	/// Releases all memory that this data structure owns.
	239	void Reset();
	240
	241	/// Index size in bytes.
	242	size_t IndexSize() const;
	243
	244	/// Face size in bytes.
	245	size_t FaceSize() const;
	246
	247	/// Index count.
	248	uint32_t count;
	249
	250	/// Face count.
	251	uint32_t faceCount;
	252
	253	/// If has 32-bit indexes.
	254	bool is32bit;
	255
	256	/// Index buffer.
	257	MemoryStreamPtr buffer;
	258	};
	259
	260	/// Ogre Pose
	261	class Pose
	262	{
	263	public:
	264	struct Vertex
	265	{
	266	uint32_t index;
	267	aiVector3D offset;
	268	aiVector3D normal;
	269	};
	270	typedef std::map<uint32_t, Vertex> PoseVertexMap;
	271
	272	Pose() : target(0), hasNormals(false) {}
	273
	274	/// Name.
	275	std::string name;
	276
	277	/// Target.
	278	uint16_t target;
	279
	280	/// Does vertices map have normals.
	281	bool hasNormals;
	282
	283	/// Vertex offset and normals.
	284	PoseVertexMap vertices;
	285	};
	286	typedef std::vector<Pose*> PoseList;
	287
	288	/// Ogre Pose Key Frame Ref
	289	struct PoseRef
	290	{
	291	uint16_t index;
	292	float influence;
	293	};
	294	typedef std::vector<PoseRef> PoseRefList;
	295
	296	/// Ogre Pose Key Frame
	297	struct PoseKeyFrame
	298	{
	299	/// Time position in the animation.
	300	float timePos;
	301
	302	PoseRefList references;
	303	};
	304	typedef std::vector<PoseKeyFrame> PoseKeyFrameList;
	305
	306	/// Ogre Morph Key Frame
	307	struct MorphKeyFrame
	308	{
	309	/// Time position in the animation.
	310	float timePos;
	311
	312	MemoryStreamPtr buffer;
	313	};
	314	typedef std::vector<MorphKeyFrame> MorphKeyFrameList;
	315
	316	/// Ogre animation key frame
	317	struct TransformKeyFrame
	318	{
	319	TransformKeyFrame();
	320
	321	aiMatrix4x4 Transform();
	322
	323	float timePos;
	324
	325	aiQuaternion rotation;
	326	aiVector3D position;
	327	aiVector3D scale;
	328	};
	329	typedef std::vector<TransformKeyFrame> TransformKeyFrameList;
	330
	331	/// Ogre Animation Track
	332	struct VertexAnimationTrack
	333	{
	334	enum Type
	335	{
	336	/// No animation
	337	VAT_NONE = 0,
	338	/// Morph animation is made up of many interpolated snapshot keyframes
	339	VAT_MORPH = 1,
	340	/// Pose animation is made up of a single delta pose keyframe
	341	VAT_POSE = 2,
	342	/// Keyframe that has its on pos, rot and scale for a time position
	343	VAT_TRANSFORM = 3
	344	};
	345
	346	VertexAnimationTrack();
	347
	348	/// Convert to Assimp node animation.
	349	aiNodeAnim ConvertToAssimpAnimationNode(Skeleton skeleton);
	350
	351	// Animation type.
	352	Type type;
	353
	354	/// Vertex data target.
	355	/** 0 == shared geometry
	356	>0 == submesh index + 1 */
	357	uint16_t target;
	358
	359	/// Only valid for VAT_TRANSFORM.
	360	std::string boneName;
	361
	362	/// Only one of these will contain key frames, depending on the type enum.
	363	PoseKeyFrameList poseKeyFrames;
	364	MorphKeyFrameList morphKeyFrames;
	365	TransformKeyFrameList transformKeyFrames;
	366	};
	367	typedef std::vector<VertexAnimationTrack> VertexAnimationTrackList;
	368
	369	/// Ogre Animation
	370	class Animation
	371	{
	372	public:
	373	Animation(Skeleton *parent);
	374	Animation(Mesh *parent);
	375
	376	/// Returns the associated vertex data for a track in this animation.
	377	/** @note Only valid to call when parent Mesh is set. */
	378	VertexData AssociatedVertexData(VertexAnimationTrack track) const;
	379
	380	/// Convert to Assimp animation.
	381	aiAnimation *ConvertToAssimpAnimation();
	382
	383	/// Parent mesh.
	384	/** @note Set only when animation is read from a mesh. */
	385	Mesh *parentMesh;
	386
	387	/// Parent skeleton.
	388	/** @note Set only when animation is read from a skeleton. */
	389	Skeleton *parentSkeleton;
	390
	391	/// Animation name.
	392	std::string name;
	393
	394	/// Base animation name.
	395	std::string baseName;
	396
	397	/// Length in seconds.
	398	float length;
	399
	400	/// Base animation key time.
	401	float baseTime;
	402
	403	/// Animation tracks.
	404	VertexAnimationTrackList tracks;
	405	};
	406	typedef std::vector<Animation*> AnimationList;
	407
	408	/// Ogre Bone
	409	class Bone
	410	{
	411	public:
	412	Bone();
	413
	414	/// Returns if this bone is parented.
	415	bool IsParented() const;
	416
	417	/// Parent index as uint16_t. Internally int32_t as -1 means unparented.
	418	uint16_t ParentId() const;
	419
	420	/// Add child bone.
	421	void AddChild(Bone *bone);
	422
	423	/// Calculates the world matrix for bone and its children.
	424	void CalculateWorldMatrixAndDefaultPose(Skeleton *skeleton);
	425
	426	/// Convert to Assimp node (animation nodes).
	427	aiNode ConvertToAssimpNode(Skeleton parent, aiNode *parentNode = 0);
	428
	429	/// Convert to Assimp bone (mesh bones).
	430	aiBone ConvertToAssimpBone(Skeleton parent, const std::vector<aiVertexWeight> &boneWeights);
	431
	432	uint16_t id;
	433	std::string name;
	434
	435	Bone *parent;
	436	int32_t parentId;
	437	std::vector<uint16_t> children;
	438
	439	aiVector3D position;
	440	aiQuaternion rotation;
	441	aiVector3D scale;
	442
	443	aiMatrix4x4 worldMatrix;
	444	aiMatrix4x4 defaultPose;
	445	};
	446	typedef std::vector<Bone*> BoneList;
	447
	448	/// Ogre Skeleton
	449	class Skeleton
	450	{
	451	public:
	452	enum BlendMode
	453	{
	454	/// Animations are applied by calculating a weighted average of all animations
	455	ANIMBLEND_AVERAGE = 0,
	456	/// Animations are applied by calculating a weighted cumulative total
	457	ANIMBLEND_CUMULATIVE = 1
	458	};
	459
	460	Skeleton();
	461	~Skeleton();
	462
	463	/// Releases all memory that this data structure owns.
	464	void Reset();
	465
	466	/// Returns unparented root bones.
	467	BoneList RootBones() const;
	468
	469	/// Returns number of unparented root bones.
	470	size_t NumRootBones() const;
	471
	472	/// Get bone by name.
	473	Bone *BoneByName(const std::string &name) const;
	474
	475	/// Get bone by id.
	476	Bone *BoneById(uint16_t id) const;
	477
	478	BoneList bones;
	479	AnimationList animations;
	480
	481	/// @todo Take blend mode into account, but where?
	482	BlendMode blendMode;
	483	};
	484
	485	/// Ogre Sub Mesh interface, inherited by the binary and XML implementations.
	486	class ISubMesh
	487	{
	488	public:
	489	/// @note Full list of Ogre types, not all of them are supported and exposed to Assimp.
	490	enum OperationType
	491	{
	492	/// A list of points, 1 vertex per point
	493	OT_POINT_LIST = 1,
	494	/// A list of lines, 2 vertices per line
	495	OT_LINE_LIST = 2,
	496	/// A strip of connected lines, 1 vertex per line plus 1 start vertex
	497	OT_LINE_STRIP = 3,
	498	/// A list of triangles, 3 vertices per triangle
	499	OT_TRIANGLE_LIST = 4,
	500	/// A strip of triangles, 3 vertices for the first triangle, and 1 per triangle after that
	501	OT_TRIANGLE_STRIP = 5,
	502	/// A fan of triangles, 3 vertices for the first triangle, and 1 per triangle after that
	503	OT_TRIANGLE_FAN = 6
	504	};
	505
	506	ISubMesh();
	507
	508	/// SubMesh index.
	509	unsigned int index;
	510
	511	/// SubMesh name.
	512	std::string name;
	513
	514	/// Material used by this submesh.
	515	std::string materialRef;
	516
	517	/// Texture alias information.
	518	std::string textureAliasName;
	519	std::string textureAliasRef;
	520
	521	/// Assimp scene material index used by this submesh.
	522	/** -1 if no material or material could not be imported. */
	523	int materialIndex;
	524
	525	/// If submesh uses shared geometry from parent mesh.
	526	bool usesSharedVertexData;
	527
	528	/// Operation type.
	529	OperationType operationType;
	530	};
	531
	532	/// Ogre SubMesh
	533	class SubMesh : public ISubMesh
	534	{
	535	public:
	536	SubMesh();
	537	~SubMesh();
	538
	539	/// Releases all memory that this data structure owns.
	540	/** @note Vertex and index data contains shared ptrs
	541	that are freed automatically. In practice the ref count
	542	should be 0 after this reset. */
	543	void Reset();
	544
	545	/// Covert to Assimp mesh.
	546	aiMesh ConvertToAssimpMesh(Mesh parent);
	547
	548	/// Vertex data.
	549	VertexData *vertexData;
	550
	551	/// Index data.
	552	IndexData *indexData;
	553	};
	554	typedef std::vector<SubMesh*> SubMeshList;
	555
	556	/// Ogre Mesh
	557	class Mesh
	558	{
	559	public:
	560	Mesh();
	561	~Mesh();
	562
	563	/// Releases all memory that this data structure owns.
	564	void Reset();
	565
	566	/// Returns number of subMeshes.
	567	size_t NumSubMeshes() const;
	568
	569	/// Returns submesh for @c index.
	570	SubMesh *GetSubMesh(uint16_t index) const;
	571
	572	/// Convert mesh to Assimp scene.
	573	void ConvertToAssimpScene(aiScene* dest);
	574
	575	/// Mesh has skeletal animations.
	576	bool hasSkeletalAnimations;
	577
	578	/// Skeleton reference.
	579	std::string skeletonRef;
	580
	581	/// Skeleton.
	582	Skeleton *skeleton;
	583
	584	/// Vertex data
	585	VertexData *sharedVertexData;
	586
	587	/// Sub meshes.
	588	SubMeshList subMeshes;
	589
	590	/// Animations
	591	AnimationList animations;
	592
	593	/// Poses
	594	PoseList poses;
	595	};
	596
	597	/// Ogre XML Vertex Data
	598	class VertexDataXml : public IVertexData
	599	{
	600	public:
	601	VertexDataXml();
	602
	603	bool HasPositions() const;
	604	bool HasNormals() const;
	605	bool HasTangents() const;
	606	bool HasUvs() const;
	607	size_t NumUvs() const;
	608
	609	std::vector<aiVector3D> positions;
	610	std::vector<aiVector3D> normals;
	611	std::vector<aiVector3D> tangents;
	612	std::vector<std::vector<aiVector3D> > uvs;
	613	};
	614
	615	/// Ogre XML Index Data
	616	class IndexDataXml
	617	{
	618	public:
	619	IndexDataXml() : faceCount(0) {}
	620
	621	/// Face count.
	622	uint32_t faceCount;
	623
	624	std::vector<aiFace> faces;
	625	};
	626
	627	/// Ogre XML SubMesh
	628	class SubMeshXml : public ISubMesh
	629	{
	630	public:
	631	SubMeshXml();
	632	~SubMeshXml();
	633
	634	/// Releases all memory that this data structure owns.
	635	void Reset();
	636
	637	aiMesh ConvertToAssimpMesh(MeshXml parent);
	638
	639	IndexDataXml *indexData;
	640	VertexDataXml *vertexData;
	641	};
	642	typedef std::vector<SubMeshXml*> SubMeshXmlList;
	643
	644	/// Ogre XML Mesh
	645	class MeshXml
	646	{
	647	public:
	648	MeshXml();
	649	~MeshXml();
	650
	651	/// Releases all memory that this data structure owns.
	652	void Reset();
	653
	654	/// Returns number of subMeshes.
	655	size_t NumSubMeshes() const;
	656
	657	/// Returns submesh for @c index.
	658	SubMeshXml *GetSubMesh(uint16_t index) const;
	659
	660	/// Convert mesh to Assimp scene.
	661	void ConvertToAssimpScene(aiScene* dest);
	662
	663	/// Skeleton reference.
	664	std::string skeletonRef;
	665
	666	/// Skeleton.
	667	Skeleton *skeleton;
	668
	669	/// Vertex data
	670	VertexDataXml *sharedVertexData;
	671
	672	/// Sub meshes.
	673	SubMeshXmlList subMeshes;
	674	};
	675
	676	} // Ogre
	677	} // Assimp
	678
	679	#endif // ASSIMP_BUILD_NO_OGRE_IMPORTER
	680	#endif // AI_OGRESTRUCTS_H_INC

-88

~~code/OgreXmlHelper.hpp~~ less more

0
1		#include "irrXMLWrapper.h"
2		#include "fast_atof.h"
3
4		namespace Assimp
5		{
6		namespace Ogre
7		{
8
9		typedef irr::io::IrrXMLReader XmlReader;
10
11
12		//------------Helper Funktion to Get a Attribute Save---------------
13		template<typename t> inline t GetAttribute(XmlReader* Reader, std::string Name);
14
15		/*
16		{
17		BOOST_STATIC_ASSERT(false);
18		return t();
19		}
20		*/
21
22		template<> inline int GetAttribute<int>(XmlReader* Reader, std::string Name)
23		{
24		const char* Value=Reader->getAttributeValue(Name.c_str());
25		if(Value)
26		return atoi(Value);
27		else
28		throw DeadlyImportError(std::string("Attribute "+Name+" does not exist in "+Reader->getNodeName()).c_str());
29		}
30
31		template<> inline unsigned int GetAttribute<unsigned int>(XmlReader* Reader, std::string Name)
32		{
33		const char* Value=Reader->getAttributeValue(Name.c_str());
34		if(Value)
35		return static_cast<unsigned int>(atoi(Value));//yes, ugly, but pfff
36		else
37		throw DeadlyImportError(std::string("Attribute "+Name+" does not exist in "+Reader->getNodeName()).c_str());
38		}
39
40		template<> inline float GetAttribute<float>(XmlReader* Reader, std::string Name)
41		{
42		const char* Value=Reader->getAttributeValue(Name.c_str());
43		if(Value)
44		return fast_atof(Value);
45		else
46		throw DeadlyImportError(std::string("Attribute "+Name+" does not exist in "+Reader->getNodeName()).c_str());
47		}
48
49		template<> inline std::string GetAttribute<std::string>(XmlReader* Reader, std::string Name)
50		{
51		const char* Value=Reader->getAttributeValue(Name.c_str());
52		if(Value)
53		return std::string(Value);
54		else
55		throw DeadlyImportError(std::string("Attribute "+Name+" does not exist in "+Reader->getNodeName()).c_str());
56		}
57
58		template<> inline bool GetAttribute<bool>(XmlReader* Reader, std::string Name)
59		{
60		const char* Value=Reader->getAttributeValue(Name.c_str());
61		if(Value)
62		{
63		if(Value==std::string("true"))
64		return true;
65		else if(Value==std::string("false"))
66		return false;
67		else
68		throw DeadlyImportError(std::string("Bool value has invalid value: "+Name+" / "+Value+" / "+Reader->getNodeName()));
69		}
70		else
71		throw DeadlyImportError(std::string("Attribute "+Name+" does not exist in "+Reader->getNodeName()).c_str());
72		}
73		//__________________________________________________________________
74
75		inline bool XmlRead(XmlReader* Reader)
76		{
77		do
78		{
79		if(!Reader->read())
80		return false;
81		}
82		while(Reader->getNodeType()!=irr::io::EXN_ELEMENT);
83		return true;
84		}
85
86		}//namespace Ogre
87		}//namespace Assimp

+1003

-0

code/OgreXmlSerializer.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	#include "OgreXmlSerializer.h"
	41	#include "OgreBinarySerializer.h"
	42	#include "OgreParsingUtils.h"
	43
	44	#include "TinyFormatter.h"
	45
	46	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
	47
	48	// Define as 1 to get verbose logging.
	49	#define OGRE_XML_SERIALIZER_DEBUG 0
	50
	51	namespace Assimp
	52	{
	53	namespace Ogre
	54	{
	55
	56	void ThrowAttibuteError(const XmlReader* reader, const std::string &name, const std::string &error = "")
	57	{
	58	if (!error.empty())
	59	{
	60	throw DeadlyImportError(error + " in node '" + std::string(reader->getNodeName()) + "' and attribute '" + name + "'");
	61	}
	62	else
	63	{
	64	throw DeadlyImportError("Attribute '" + name + "' does not exist in node '" + std::string(reader->getNodeName()) + "'");
	65	}
	66	}
	67
	68	template<>
	69	int32_t OgreXmlSerializer::ReadAttribute<int32_t>(const std::string &name) const
	70	{
	71	if (HasAttribute(name.c_str()))
	72	{
	73	return static_cast<int32_t>(m_reader->getAttributeValueAsInt(name.c_str()));
	74	}
	75	else
	76	{
	77	ThrowAttibuteError(m_reader, name);
	78	return 0;
	79	}
	80	}
	81
	82	template<>
	83	uint32_t OgreXmlSerializer::ReadAttribute<uint32_t>(const std::string &name) const
	84	{
	85	if (HasAttribute(name.c_str()))
	86	{
	87	/** @note This is hackish. But we are never expecting unsigned values that go outside the
	88	int32_t range. Just monitor for negative numbers and kill the import. */
	89	int32_t temp = ReadAttribute<int32_t>(name);
	90	if (temp >= 0)
	91	{
	92	return static_cast<uint32_t>(temp);
	93	}
	94	else
	95	{
	96	ThrowAttibuteError(m_reader, name, "Found a negative number value where expecting a uint32_t value");
	97	}
	98	}
	99	else
	100	{
	101	ThrowAttibuteError(m_reader, name);
	102	}
	103	return 0;
	104	}
	105
	106	template<>
	107	uint16_t OgreXmlSerializer::ReadAttribute<uint16_t>(const std::string &name) const
	108	{
	109	if (HasAttribute(name.c_str()))
	110	{
	111	return static_cast<uint16_t>(ReadAttribute<uint32_t>(name));
	112	}
	113	else
	114	{
	115	ThrowAttibuteError(m_reader, name);
	116	}
	117	return 0;
	118	}
	119
	120	template<>
	121	float OgreXmlSerializer::ReadAttribute<float>(const std::string &name) const
	122	{
	123	if (HasAttribute(name.c_str()))
	124	{
	125	return m_reader->getAttributeValueAsFloat(name.c_str());
	126	}
	127	else
	128	{
	129	ThrowAttibuteError(m_reader, name);
	130	return 0;
	131	}
	132	}
	133
	134	template<>
	135	std::string OgreXmlSerializer::ReadAttribute<std::string>(const std::string &name) const
	136	{
	137	const char* value = m_reader->getAttributeValue(name.c_str());
	138	if (value)
	139	{
	140	return std::string(value);
	141	}
	142	else
	143	{
	144	ThrowAttibuteError(m_reader, name);
	145	return "";
	146	}
	147	}
	148
	149	template<>
	150	bool OgreXmlSerializer::ReadAttribute<bool>(const std::string &name) const
	151	{
	152	std::string value = Ogre::ToLower(ReadAttribute<std::string>(name));
	153	if (ASSIMP_stricmp(value, "true") == 0)
	154	{
	155	return true;
	156	}
	157	else if (ASSIMP_stricmp(value, "false") == 0)
	158	{
	159	return false;
	160	}
	161	else
	162	{
	163	ThrowAttibuteError(m_reader, name, "Boolean value is expected to be 'true' or 'false', encountered '" + value + "'");
	164	return false;
	165	}
	166	}
	167
	168	bool OgreXmlSerializer::HasAttribute(const std::string &name) const
	169	{
	170	return (m_reader->getAttributeValue(name.c_str()) != 0);
	171	}
	172
	173	std::string &OgreXmlSerializer::NextNode()
	174	{
	175	do
	176	{
	177	if (!m_reader->read())
	178	{
	179	m_currentNodeName = "";
	180	return m_currentNodeName;
	181	}
	182	}
	183	while(m_reader->getNodeType() != irr::io::EXN_ELEMENT);
	184
	185	CurrentNodeName(true);
	186	#if (OGRE_XML_SERIALIZER_DEBUG == 1)
	187	DefaultLogger::get()->debug("<" + m_currentNodeName + ">");
	188	#endif
	189	return m_currentNodeName;
	190	}
	191
	192	bool OgreXmlSerializer::CurrentNodeNameEquals(const std::string &name) const
	193	{
	194	return (ASSIMP_stricmp(m_currentNodeName, name) == 0);
	195	}
	196
	197	std::string OgreXmlSerializer::CurrentNodeName(bool forceRead)
	198	{
	199	if (forceRead)
	200	m_currentNodeName = std::string(m_reader->getNodeName());
	201	return m_currentNodeName;
	202	}
	203
	204	std::string &OgreXmlSerializer::SkipCurrentNode()
	205	{
	206	#if (OGRE_XML_SERIALIZER_DEBUG == 1)
	207	DefaultLogger::get()->debug("Skipping node <" + m_currentNodeName + ">");
	208	#endif
	209
	210	for(;;)
	211	{
	212	if (!m_reader->read())
	213	{
	214	m_currentNodeName = "";
	215	return m_currentNodeName;
	216	}
	217	if (m_reader->getNodeType() != irr::io::EXN_ELEMENT_END)
	218	continue;
	219	else if (std::string(m_reader->getNodeName()) == m_currentNodeName)
	220	break;
	221	}
	222	return NextNode();
	223	}
	224
	225	// Mesh XML constants
	226
	227	// <mesh>
	228	const std::string nnMesh = "mesh";
	229	const std::string nnSharedGeometry = "sharedgeometry";
	230	const std::string nnSubMeshes = "submeshes";
	231	const std::string nnSubMesh = "submesh";
	232	const std::string nnSubMeshNames = "submeshnames";
	233	const std::string nnSkeletonLink = "skeletonlink";
	234	const std::string nnLOD = "levelofdetail";
	235	const std::string nnExtremes = "extremes";
	236	const std::string nnPoses = "poses";
	237	const std::string nnAnimations = "animations";
	238
	239	// <submesh>
	240	const std::string nnFaces = "faces";
	241	const std::string nnFace = "face";
	242	const std::string nnGeometry = "geometry";
	243	const std::string nnTextures = "textures";
	244
	245	// <mesh/submesh>
	246	const std::string nnBoneAssignments = "boneassignments";
	247
	248	// <sharedgeometry/geometry>
	249	const std::string nnVertexBuffer = "vertexbuffer";
	250
	251	// <vertexbuffer>
	252	const std::string nnVertex = "vertex";
	253	const std::string nnPosition = "position";
	254	const std::string nnNormal = "normal";
	255	const std::string nnTangent = "tangent";
	256	const std::string nnBinormal = "binormal";
	257	const std::string nnTexCoord = "texcoord";
	258	const std::string nnColorDiffuse = "colour_diffuse";
	259	const std::string nnColorSpecular = "colour_specular";
	260
	261	// <boneassignments>
	262	const std::string nnVertexBoneAssignment = "vertexboneassignment";
	263
	264	// Skeleton XML constants
	265
	266	// <skeleton>
	267	const std::string nnSkeleton = "skeleton";
	268	const std::string nnBones = "bones";
	269	const std::string nnBoneHierarchy = "bonehierarchy";
	270	const std::string nnAnimationLinks = "animationlinks";
	271
	272	// <bones>
	273	const std::string nnBone = "bone";
	274	const std::string nnRotation = "rotation";
	275	const std::string nnAxis = "axis";
	276	const std::string nnScale = "scale";
	277
	278	// <bonehierarchy>
	279	const std::string nnBoneParent = "boneparent";
	280
	281	// <animations>
	282	const std::string nnAnimation = "animation";
	283	const std::string nnTracks = "tracks";
	284
	285	// <tracks>
	286	const std::string nnTrack = "track";
	287	const std::string nnKeyFrames = "keyframes";
	288	const std::string nnKeyFrame = "keyframe";
	289	const std::string nnTranslate = "translate";
	290	const std::string nnRotate = "rotate";
	291
	292	// Common XML constants
	293
	294	const std::string anX = "x";
	295	const std::string anY = "y";
	296	const std::string anZ = "z";
	297
	298	// Mesh
	299
	300	MeshXml OgreXmlSerializer::ImportMesh(XmlReader reader)
	301	{
	302	OgreXmlSerializer serializer(reader);
	303
	304	MeshXml *mesh = new MeshXml();
	305	serializer.ReadMesh(mesh);
	306	return mesh;
	307	}
	308
	309	void OgreXmlSerializer::ReadMesh(MeshXml *mesh)
	310	{
	311	if (NextNode() != nnMesh) {
	312	throw DeadlyImportError("Root node is <" + m_currentNodeName + "> expecting <mesh>");
	313	}
	314
	315	DefaultLogger::get()->debug("Reading Mesh");
	316
	317	NextNode();
	318
	319	// Root level nodes
	320	while(m_currentNodeName == nnSharedGeometry \|\|
	321	m_currentNodeName == nnSubMeshes \|\|
	322	m_currentNodeName == nnSkeletonLink \|\|
	323	m_currentNodeName == nnBoneAssignments \|\|
	324	m_currentNodeName == nnLOD \|\|
	325	m_currentNodeName == nnSubMeshNames \|\|
	326	m_currentNodeName == nnExtremes \|\|
	327	m_currentNodeName == nnPoses \|\|
	328	m_currentNodeName == nnAnimations)
	329	{
	330	if (m_currentNodeName == nnSharedGeometry)
	331	{
	332	mesh->sharedVertexData = new VertexDataXml();
	333	ReadGeometry(mesh->sharedVertexData);
	334	}
	335	else if (m_currentNodeName == nnSubMeshes)
	336	{
	337	NextNode();
	338	while(m_currentNodeName == nnSubMesh) {
	339	ReadSubMesh(mesh);
	340	}
	341	}
	342	else if (m_currentNodeName == nnBoneAssignments)
	343	{
	344	ReadBoneAssignments(mesh->sharedVertexData);
	345	}
	346	else if (m_currentNodeName == nnSkeletonLink)
	347	{
	348	mesh->skeletonRef = ReadAttribute<std::string>("name");
	349	DefaultLogger::get()->debug("Read skeleton link " + mesh->skeletonRef);
	350	NextNode();
	351	}
	352	// Assimp incompatible/ignored nodes
	353	else
	354	SkipCurrentNode();
	355	}
	356	}
	357
	358	void OgreXmlSerializer::ReadGeometry(VertexDataXml *dest)
	359	{
	360	dest->count = ReadAttribute<uint32_t>("vertexcount");
	361	DefaultLogger::get()->debug(Formatter::format() << " - Reading geometry of " << dest->count << " vertices");
	362
	363	NextNode();
	364	while(m_currentNodeName == nnVertexBuffer) {
	365	ReadGeometryVertexBuffer(dest);
	366	}
	367	}
	368
	369	void OgreXmlSerializer::ReadGeometryVertexBuffer(VertexDataXml *dest)
	370	{
	371	bool positions = (HasAttribute("positions") && ReadAttribute<bool>("positions"));
	372	bool normals = (HasAttribute("normals") && ReadAttribute<bool>("normals"));
	373	bool tangents = (HasAttribute("tangents") && ReadAttribute<bool>("tangents"));
	374	uint32_t uvs = (HasAttribute("texture_coords") ? ReadAttribute<uint32_t>("texture_coords") : 0);
	375
	376	// Not having positions is a error only if a previous vertex buffer did not have them.
	377	if (!positions && !dest->HasPositions()) {
	378	throw DeadlyImportError("Vertex buffer does not contain positions!");
	379	}
	380
	381	if (positions)
	382	{
	383	DefaultLogger::get()->debug(" - Contains positions");
	384	dest->positions.reserve(dest->count);
	385	}
	386	if (normals)
	387	{
	388	DefaultLogger::get()->debug(" - Contains normals");
	389	dest->normals.reserve(dest->count);
	390	}
	391	if (tangents)
	392	{
	393	DefaultLogger::get()->debug(" - Contains tangents");
	394	dest->tangents.reserve(dest->count);
	395	}
	396	if (uvs > 0)
	397	{
	398	DefaultLogger::get()->debug(Formatter::format() << " - Contains " << uvs << " texture coords");
	399	dest->uvs.resize(uvs);
	400	for(size_t i=0, len=dest->uvs.size(); i<len; ++i) {
	401	dest->uvs[i].reserve(dest->count);
	402	}
	403	}
	404
	405	bool warnBinormal = true;
	406	bool warnColorDiffuse = true;
	407	bool warnColorSpecular = true;
	408
	409	NextNode();
	410
	411	while(m_currentNodeName == nnVertex \|\|
	412	m_currentNodeName == nnPosition \|\|
	413	m_currentNodeName == nnNormal \|\|
	414	m_currentNodeName == nnTangent \|\|
	415	m_currentNodeName == nnBinormal \|\|
	416	m_currentNodeName == nnTexCoord \|\|
	417	m_currentNodeName == nnColorDiffuse \|\|
	418	m_currentNodeName == nnColorSpecular)
	419	{
	420	if (m_currentNodeName == nnVertex) {
	421	NextNode();
	422	}
	423
	424	/// @todo Implement nnBinormal, nnColorDiffuse and nnColorSpecular
	425
	426	if (positions && m_currentNodeName == nnPosition)
	427	{
	428	aiVector3D pos;
	429	pos.x = ReadAttribute<float>(anX);
	430	pos.y = ReadAttribute<float>(anY);
	431	pos.z = ReadAttribute<float>(anZ);
	432	dest->positions.push_back(pos);
	433	}
	434	else if (normals && m_currentNodeName == nnNormal)
	435	{
	436	aiVector3D normal;
	437	normal.x = ReadAttribute<float>(anX);
	438	normal.y = ReadAttribute<float>(anY);
	439	normal.z = ReadAttribute<float>(anZ);
	440	dest->normals.push_back(normal);
	441	}
	442	else if (tangents && m_currentNodeName == nnTangent)
	443	{
	444	aiVector3D tangent;
	445	tangent.x = ReadAttribute<float>(anX);
	446	tangent.y = ReadAttribute<float>(anY);
	447	tangent.z = ReadAttribute<float>(anZ);
	448	dest->tangents.push_back(tangent);
	449	}
	450	else if (uvs > 0 && m_currentNodeName == nnTexCoord)
	451	{
	452	for(size_t i=0, len=dest->uvs.size(); i<len; ++i)
	453	{
	454	if (m_currentNodeName != nnTexCoord) {
	455	throw DeadlyImportError("Vertex buffer declared more UVs than can be found in a vertex");
	456	}
	457
	458	aiVector3D uv;
	459	uv.x = ReadAttribute<float>("u");
	460	uv.y = (ReadAttribute<float>("v") * -1) + 1; // Flip UV from Ogre to Assimp form
	461	dest->uvs[i].push_back(uv);
	462
	463	NextNode();
	464	}
	465	// Continue main loop as above already read next node
	466	continue;
	467	}
	468	else
	469	{
	470	/// @todo Remove this stuff once implemented. We only want to log warnings once per element.
	471	bool warn = true;
	472	if (m_currentNodeName == nnBinormal)
	473	{
	474	if (warnBinormal)
	475	{
	476	warnBinormal = false;
	477	}
	478	else
	479	{
	480	warn = false;
	481	}
	482	}
	483	else if (m_currentNodeName == nnColorDiffuse)
	484	{
	485	if (warnColorDiffuse)
	486	{
	487	warnColorDiffuse = false;
	488	}
	489	else
	490	{
	491	warn = false;
	492	}
	493	}
	494	else if (m_currentNodeName == nnColorSpecular)
	495	{
	496	if (warnColorSpecular)
	497	{
	498	warnColorSpecular = false;
	499	}
	500	else
	501	{
	502	warn = false;
	503	}
	504	}
	505	if (warn) {
	506	DefaultLogger::get()->warn("Vertex buffer attribute read not implemented for element: " + m_currentNodeName);
	507	}
	508	}
	509
	510	// Advance
	511	NextNode();
	512	}
	513
	514	// Sanity checks
	515	if (dest->positions.size() != dest->count) {
	516	throw DeadlyImportError(Formatter::format() << "Read only " << dest->positions.size() << " positions when should have read " << dest->count);
	517	}
	518	if (normals && dest->normals.size() != dest->count) {
	519	throw DeadlyImportError(Formatter::format() << "Read only " << dest->normals.size() << " normals when should have read " << dest->count);
	520	}
	521	if (tangents && dest->tangents.size() != dest->count) {
	522	throw DeadlyImportError(Formatter::format() << "Read only " << dest->tangents.size() << " tangents when should have read " << dest->count);
	523	}
	524	for(unsigned int i=0; i<dest->uvs.size(); ++i)
	525	{
	526	if (dest->uvs[i].size() != dest->count) {
	527	throw DeadlyImportError(Formatter::format() << "Read only " << dest->uvs[i].size()
	528	<< " uvs for uv index " << i << " when should have read " << dest->count);
	529	}
	530	}
	531	}
	532
	533	void OgreXmlSerializer::ReadSubMesh(MeshXml *mesh)
	534	{
	535	static const std::string anMaterial = "material";
	536	static const std::string anUseSharedVertices = "usesharedvertices";
	537	static const std::string anCount = "count";
	538	static const std::string anV1 = "v1";
	539	static const std::string anV2 = "v2";
	540	static const std::string anV3 = "v3";
	541	static const std::string anV4 = "v4";
	542
	543	SubMeshXml* submesh = new SubMeshXml();
	544
	545	if (HasAttribute(anMaterial)) {
	546	submesh->materialRef = ReadAttribute<std::string>(anMaterial);
	547	}
	548	if (HasAttribute(anUseSharedVertices)) {
	549	submesh->usesSharedVertexData = ReadAttribute<bool>(anUseSharedVertices);
	550	}
	551
	552	DefaultLogger::get()->debug(Formatter::format() << "Reading SubMesh " << mesh->subMeshes.size());
	553	DefaultLogger::get()->debug(Formatter::format() << " - Material: '" << submesh->materialRef << "'");
	554	DefaultLogger::get()->debug(Formatter::format() << " - Uses shared geometry: " << (submesh->usesSharedVertexData ? "true" : "false"));
	555
	556	// TODO: maybe we have always just 1 faces and 1 geometry and always in this order. this loop will only work correct, when the order
	557	// of faces and geometry changed, and not if we have more than one of one
	558	/// @todo Fix above comment with better read logic below
	559
	560	bool quadWarned = false;
	561
	562	NextNode();
	563	while(m_currentNodeName == nnFaces \|\|
	564	m_currentNodeName == nnGeometry \|\|
	565	m_currentNodeName == nnTextures \|\|
	566	m_currentNodeName == nnBoneAssignments)
	567	{
	568	if (m_currentNodeName == nnFaces)
	569	{
	570	submesh->indexData->faceCount = ReadAttribute<uint32_t>(anCount);
	571	submesh->indexData->faces.reserve(submesh->indexData->faceCount);
	572
	573	NextNode();
	574	while(m_currentNodeName == nnFace)
	575	{
	576	aiFace face;
	577	face.mNumIndices = 3;
	578	face.mIndices = new unsigned int[3];
	579	face.mIndices[0] = ReadAttribute<uint32_t>(anV1);
	580	face.mIndices[1] = ReadAttribute<uint32_t>(anV2);
	581	face.mIndices[2] = ReadAttribute<uint32_t>(anV3);
	582
	583	/// @todo Support quads if Ogre even supports them in XML (I'm not sure but I doubt it)
	584	if (!quadWarned && HasAttribute(anV4)) {
	585	DefaultLogger::get()->warn("Submesh <face> has quads with <v4>, only triangles are supported at the moment!");
	586	quadWarned = true;
	587	}
	588
	589	submesh->indexData->faces.push_back(face);
	590
	591	// Advance
	592	NextNode();
	593	}
	594
	595	if (submesh->indexData->faces.size() == submesh->indexData->faceCount)
	596	{
	597	DefaultLogger::get()->debug(Formatter::format() << " - Faces " << submesh->indexData->faceCount);
	598	}
	599	else
	600	{
	601	throw DeadlyImportError(Formatter::format() << "Read only " << submesh->indexData->faces.size() << " faces when should have read " << submesh->indexData->faceCount);
	602	}
	603	}
	604	else if (m_currentNodeName == nnGeometry)
	605	{
	606	if (submesh->usesSharedVertexData) {
	607	throw DeadlyImportError("Found <geometry> in <submesh> when use shared geometry is true. Invalid mesh file.");
	608	}
	609
	610	submesh->vertexData = new VertexDataXml();
	611	ReadGeometry(submesh->vertexData);
	612	}
	613	else if (m_currentNodeName == nnBoneAssignments)
	614	{
	615	ReadBoneAssignments(submesh->vertexData);
	616	}
	617	// Assimp incompatible/ignored nodes
	618	else
	619	SkipCurrentNode();
	620	}
	621
	622	submesh->index = mesh->subMeshes.size();
	623	mesh->subMeshes.push_back(submesh);
	624	}
	625
	626	void OgreXmlSerializer::ReadBoneAssignments(VertexDataXml *dest)
	627	{
	628	if (!dest) {
	629	throw DeadlyImportError("Cannot read bone assignments, vertex data is null.");
	630	}
	631
	632	static const std::string anVertexIndex = "vertexindex";
	633	static const std::string anBoneIndex = "boneindex";
	634	static const std::string anWeight = "weight";
	635
	636	std::set<uint32_t> influencedVertices;
	637
	638	NextNode();
	639	while(m_currentNodeName == nnVertexBoneAssignment)
	640	{
	641	VertexBoneAssignment ba;
	642	ba.vertexIndex = ReadAttribute<uint32_t>(anVertexIndex);
	643	ba.boneIndex = ReadAttribute<uint16_t>(anBoneIndex);
	644	ba.weight = ReadAttribute<float>(anWeight);
	645
	646	dest->boneAssignments.push_back(ba);
	647	influencedVertices.insert(ba.vertexIndex);
	648
	649	NextNode();
	650	}
	651
	652	/** Normalize bone weights.
	653	Some exporters wont care if the sum of all bone weights
	654	for a single vertex equals 1 or not, so validate here. */
	655	const float epsilon = 0.05f;
	656	for(std::set<uint32_t>::const_iterator iter=influencedVertices.begin(), end=influencedVertices.end(); iter != end; ++iter)
	657	{
	658	const uint32_t vertexIndex = (*iter);
	659
	660	float sum = 0.0f;
	661	for (VertexBoneAssignmentList::const_iterator baIter=dest->boneAssignments.begin(), baEnd=dest->boneAssignments.end(); baIter != baEnd; ++baIter)
	662	{
	663	if (baIter->vertexIndex == vertexIndex)
	664	sum += baIter->weight;
	665	}
	666	if ((sum < (1.0f - epsilon)) \|\| (sum > (1.0f + epsilon)))
	667	{
	668	for (VertexBoneAssignmentList::iterator baIter=dest->boneAssignments.begin(), baEnd=dest->boneAssignments.end(); baIter != baEnd; ++baIter)
	669	{
	670	if (baIter->vertexIndex == vertexIndex)
	671	baIter->weight /= sum;
	672	}
	673	}
	674	}
	675
	676	DefaultLogger::get()->debug(Formatter::format() << " - " << dest->boneAssignments.size() << " bone assignments");
	677	}
	678
	679	// Skeleton
	680
	681	bool OgreXmlSerializer::ImportSkeleton(Assimp::IOSystem pIOHandler, MeshXml mesh)
	682	{
	683	if (!mesh \|\| mesh->skeletonRef.empty())
	684	return false;
	685
	686	// Highly unusual to see in read world cases but support
	687	// XML mesh referencing a binary skeleton file.
	688	if (EndsWith(mesh->skeletonRef, ".skeleton", false))
	689	{
	690	if (OgreBinarySerializer::ImportSkeleton(pIOHandler, mesh))
	691	return true;
	692
	693	/** Last fallback if .skeleton failed to be read. Try reading from
	694	.skeleton.xml even if the XML file referenced a binary skeleton.
	695	@note This logic was in the previous version and I don't want to break
	696	old code that might depends on it. */
	697	mesh->skeletonRef = mesh->skeletonRef + ".xml";
	698	}
	699
	700	XmlReaderPtr reader = OpenReader(pIOHandler, mesh->skeletonRef);
	701	if (!reader.get())
	702	return false;
	703
	704	Skeleton *skeleton = new Skeleton();
	705	OgreXmlSerializer serializer(reader.get());
	706	serializer.ReadSkeleton(skeleton);
	707	mesh->skeleton = skeleton;
	708	return true;
	709	}
	710
	711	bool OgreXmlSerializer::ImportSkeleton(Assimp::IOSystem pIOHandler, Mesh mesh)
	712	{
	713	if (!mesh \|\| mesh->skeletonRef.empty())
	714	return false;
	715
	716	XmlReaderPtr reader = OpenReader(pIOHandler, mesh->skeletonRef);
	717	if (!reader.get())
	718	return false;
	719
	720	Skeleton *skeleton = new Skeleton();
	721	OgreXmlSerializer serializer(reader.get());
	722	serializer.ReadSkeleton(skeleton);
	723	mesh->skeleton = skeleton;
	724	return true;
	725	}
	726
	727	XmlReaderPtr OgreXmlSerializer::OpenReader(Assimp::IOSystem *pIOHandler, const std::string &filename)
	728	{
	729	if (!EndsWith(filename, ".skeleton.xml", false))
	730	{
	731	DefaultLogger::get()->error("Imported Mesh is referencing to unsupported '" + filename + "' skeleton file.");
	732	return XmlReaderPtr();
	733	}
	734
	735	if (!pIOHandler->Exists(filename))
	736	{
	737	DefaultLogger::get()->error("Failed to find skeleton file '" + filename + "' that is referenced by imported Mesh.");
	738	return XmlReaderPtr();
	739	}
	740
	741	boost::scoped_ptr<IOStream> file(pIOHandler->Open(filename));
	742	if (!file.get()) {
	743	throw DeadlyImportError("Failed to open skeleton file " + filename);
	744	}
	745
	746	boost::scoped_ptr<CIrrXML_IOStreamReader> stream(new CIrrXML_IOStreamReader(file.get()));
	747	XmlReaderPtr reader = XmlReaderPtr(irr::io::createIrrXMLReader(stream.get()));
	748	if (!reader.get()) {
	749	throw DeadlyImportError("Failed to create XML reader for skeleton file " + filename);
	750	}
	751	return reader;
	752	}
	753
	754	void OgreXmlSerializer::ReadSkeleton(Skeleton *skeleton)
	755	{
	756	if (NextNode() != nnSkeleton) {
	757	throw DeadlyImportError("Root node is <" + m_currentNodeName + "> expecting <skeleton>");
	758	}
	759
	760	DefaultLogger::get()->debug("Reading Skeleton");
	761
	762	// Optional blend mode from root node
	763	if (HasAttribute("blendmode")) {
	764	skeleton->blendMode = (ToLower(ReadAttribute<std::string>("blendmode")) == "cumulative"
	765	? Skeleton::ANIMBLEND_CUMULATIVE : Skeleton::ANIMBLEND_AVERAGE);
	766	}
	767
	768	NextNode();
	769
	770	// Root level nodes
	771	while(m_currentNodeName == nnBones \|\|
	772	m_currentNodeName == nnBoneHierarchy \|\|
	773	m_currentNodeName == nnAnimations \|\|
	774	m_currentNodeName == nnAnimationLinks)
	775	{
	776	if (m_currentNodeName == nnBones)
	777	ReadBones(skeleton);
	778	else if (m_currentNodeName == nnBoneHierarchy)
	779	ReadBoneHierarchy(skeleton);
	780	else if (m_currentNodeName == nnAnimations)
	781	ReadAnimations(skeleton);
	782	else
	783	SkipCurrentNode();
	784	}
	785	}
	786
	787	void OgreXmlSerializer::ReadAnimations(Skeleton *skeleton)
	788	{
	789	if (skeleton->bones.empty()) {
	790	throw DeadlyImportError("Cannot read <animations> for a Skeleton without bones");
	791	}
	792
	793	DefaultLogger::get()->debug(" - Animations");
	794
	795	NextNode();
	796	while(m_currentNodeName == nnAnimation)
	797	{
	798	Animation *anim = new Animation(skeleton);
	799	anim->name = ReadAttribute<std::string>("name");
	800	anim->length = ReadAttribute<float>("length");
	801
	802	if (NextNode() != nnTracks) {
	803	throw DeadlyImportError(Formatter::format() << "No <tracks> found in <animation> " << anim->name);
	804	}
	805
	806	ReadAnimationTracks(anim);
	807	skeleton->animations.push_back(anim);
	808
	809	DefaultLogger::get()->debug(Formatter::format() << " " << anim->name << " (" << anim->length << " sec, " << anim->tracks.size() << " tracks)");
	810	}
	811	}
	812
	813	void OgreXmlSerializer::ReadAnimationTracks(Animation *dest)
	814	{
	815	NextNode();
	816	while(m_currentNodeName == nnTrack)
	817	{
	818	VertexAnimationTrack track;
	819	track.type = VertexAnimationTrack::VAT_TRANSFORM;
	820	track.boneName = ReadAttribute<std::string>("bone");
	821
	822	if (NextNode() != nnKeyFrames) {
	823	throw DeadlyImportError(Formatter::format() << "No <keyframes> found in <track> " << dest->name);
	824	}
	825
	826	ReadAnimationKeyFrames(dest, &track);
	827
	828	dest->tracks.push_back(track);
	829	}
	830	}
	831
	832	void OgreXmlSerializer::ReadAnimationKeyFrames(Animation anim, VertexAnimationTrack dest)
	833	{
	834	const aiVector3D zeroVec(0.f, 0.f, 0.f);
	835
	836	NextNode();
	837	while(m_currentNodeName == nnKeyFrame)
	838	{
	839	TransformKeyFrame keyframe;
	840	keyframe.timePos = ReadAttribute<float>("time");
	841
	842	NextNode();
	843	while(m_currentNodeName == nnTranslate \|\| m_currentNodeName == nnRotate \|\| m_currentNodeName == nnScale)
	844	{
	845	if (m_currentNodeName == nnTranslate)
	846	{
	847	keyframe.position.x = ReadAttribute<float>(anX);
	848	keyframe.position.y = ReadAttribute<float>(anY);
	849	keyframe.position.z = ReadAttribute<float>(anZ);
	850	}
	851	else if (m_currentNodeName == nnRotate)
	852	{
	853	float angle = ReadAttribute<float>("angle");
	854
	855	if (NextNode() != nnAxis) {
	856	throw DeadlyImportError("No axis specified for keyframe rotation in animation " + anim->name);
	857	}
	858
	859	aiVector3D axis;
	860	axis.x = ReadAttribute<float>(anX);
	861	axis.y = ReadAttribute<float>(anY);
	862	axis.z = ReadAttribute<float>(anZ);
	863	if (axis.Equal(zeroVec))
	864	{
	865	axis.x = 1.0f;
	866	if (angle != 0) {
	867	DefaultLogger::get()->warn("Found invalid a key frame with a zero rotation axis in animation: " + anim->name);
	868	}
	869	}
	870	keyframe.rotation = aiQuaternion(axis, angle);
	871	}
	872	else if (m_currentNodeName == nnScale)
	873	{
	874	keyframe.scale.x = ReadAttribute<float>(anX);
	875	keyframe.scale.y = ReadAttribute<float>(anY);
	876	keyframe.scale.z = ReadAttribute<float>(anZ);
	877	}
	878
	879	NextNode();
	880	}
	881
	882	dest->transformKeyFrames.push_back(keyframe);
	883	}
	884	}
	885
	886	void OgreXmlSerializer::ReadBoneHierarchy(Skeleton *skeleton)
	887	{
	888	if (skeleton->bones.empty()) {
	889	throw DeadlyImportError("Cannot read <bonehierarchy> for a Skeleton without bones");
	890	}
	891
	892	while(NextNode() == nnBoneParent)
	893	{
	894	const std::string name = ReadAttribute<std::string>("bone");
	895	const std::string parentName = ReadAttribute<std::string>("parent");
	896
	897	Bone *bone = skeleton->BoneByName(name);
	898	Bone *parent = skeleton->BoneByName(parentName);
	899
	900	if (bone && parent)
	901	parent->AddChild(bone);
	902	else
	903	throw DeadlyImportError("Failed to find bones for parenting: Child " + name + " for parent " + parentName);
	904	}
	905
	906	// Calculate bone matrices for root bones. Recursively calculates their children.
	907	for (size_t i=0, len=skeleton->bones.size(); i<len; ++i)
	908	{
	909	Bone *bone = skeleton->bones[i];
	910	if (!bone->IsParented())
	911	bone->CalculateWorldMatrixAndDefaultPose(skeleton);
	912	}
	913	}
	914
	915	bool BoneCompare(Bone a, Bone b)
	916	{
	917	return (a->id < b->id);
	918	}
	919
	920	void OgreXmlSerializer::ReadBones(Skeleton *skeleton)
	921	{
	922	DefaultLogger::get()->debug(" - Bones");
	923
	924	NextNode();
	925	while(m_currentNodeName == nnBone)
	926	{
	927	Bone *bone = new Bone();
	928	bone->id = ReadAttribute<uint16_t>("id");
	929	bone->name = ReadAttribute<std::string>("name");
	930
	931	NextNode();
	932	while(m_currentNodeName == nnPosition \|\|
	933	m_currentNodeName == nnRotation \|\|
	934	m_currentNodeName == nnScale)
	935	{
	936	if (m_currentNodeName == nnPosition)
	937	{
	938	bone->position.x = ReadAttribute<float>(anX);
	939	bone->position.y = ReadAttribute<float>(anY);
	940	bone->position.z = ReadAttribute<float>(anZ);
	941	}
	942	else if (m_currentNodeName == nnRotation)
	943	{
	944	float angle = ReadAttribute<float>("angle");
	945
	946	if (NextNode() != nnAxis) {
	947	throw DeadlyImportError(Formatter::format() << "No axis specified for bone rotation in bone " << bone->id);
	948	}
	949
	950	aiVector3D axis;
	951	axis.x = ReadAttribute<float>(anX);
	952	axis.y = ReadAttribute<float>(anY);
	953	axis.z = ReadAttribute<float>(anZ);
	954
	955	bone->rotation = aiQuaternion(axis, angle);
	956	}
	957	else if (m_currentNodeName == nnScale)
	958	{
	959	/// @todo Implement taking scale into account in matrix/pose calculations!
	960	if (HasAttribute("factor"))
	961	{
	962	float factor = ReadAttribute<float>("factor");
	963	bone->scale.Set(factor, factor, factor);
	964	}
	965	else
	966	{
	967	if (HasAttribute(anX))
	968	bone->scale.x = ReadAttribute<float>(anX);
	969	if (HasAttribute(anY))
	970	bone->scale.y = ReadAttribute<float>(anY);
	971	if (HasAttribute(anZ))
	972	bone->scale.z = ReadAttribute<float>(anZ);
	973	}
	974	}
	975
	976	NextNode();
	977	}
	978
	979	skeleton->bones.push_back(bone);
	980	}
	981
	982	// Order bones by Id
	983	std::sort(skeleton->bones.begin(), skeleton->bones.end(), BoneCompare);
	984
	985	// Validate that bone indexes are not skipped.
	986	/** @note Left this from original authors code, but not sure if this is strictly necessary
	987	as per the Ogre skeleton spec. It might be more that other (later) code in this imported does not break. */
	988	for (size_t i=0, len=skeleton->bones.size(); i<len; ++i)
	989	{
	990	Bone *b = skeleton->bones[i];
	991	DefaultLogger::get()->debug(Formatter::format() << " " << b->id << " " << b->name);
	992
	993	if (b->id != static_cast<uint16_t>(i)) {
	994	throw DeadlyImportError(Formatter::format() << "Bone ids are not in sequence starting from 0. Missing index " << i);
	995	}
	996	}
	997	}
	998
	999	} // Ogre
	1000	} // Assimp
	1001
	1002	#endif // ASSIMP_BUILD_NO_OGRE_IMPORTER

+116

-0

code/OgreXmlSerializer.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	#ifndef AI_OGREXMLSERIALIZER_H_INC
	41	#define AI_OGREXMLSERIALIZER_H_INC
	42
	43	#ifndef ASSIMP_BUILD_NO_OGRE_IMPORTER
	44
	45	#include "OgreStructs.h"
	46	#include "irrXMLWrapper.h"
	47
	48	namespace Assimp
	49	{
	50	namespace Ogre
	51	{
	52
	53	typedef irr::io::IrrXMLReader XmlReader;
	54	typedef boost::shared_ptr<XmlReader> XmlReaderPtr;
	55
	56	class OgreXmlSerializer
	57	{
	58	public:
	59	/// Imports mesh and returns the result.
	60	/** @note Fatal unrecoverable errors will throw a DeadlyImportError. */
	61	static MeshXml ImportMesh(XmlReader reader);
	62
	63	/// Imports skeleton to @c mesh.
	64	/** If mesh does not have a skeleton reference or the skeleton file
	65	cannot be found it is not a fatal DeadlyImportError.
	66	@return If skeleton import was successful. */
	67	static bool ImportSkeleton(Assimp::IOSystem pIOHandler, MeshXml mesh);
	68	static bool ImportSkeleton(Assimp::IOSystem pIOHandler, Mesh mesh);
	69
	70	private:
	71	OgreXmlSerializer(XmlReader *reader) :
	72	m_reader(reader)
	73	{
	74	}
	75
	76	static XmlReaderPtr OpenReader(Assimp::IOSystem *pIOHandler, const std::string &filename);
	77
	78	// Mesh
	79	void ReadMesh(MeshXml *mesh);
	80	void ReadSubMesh(MeshXml *mesh);
	81
	82	void ReadGeometry(VertexDataXml *dest);
	83	void ReadGeometryVertexBuffer(VertexDataXml *dest);
	84
	85	void ReadBoneAssignments(VertexDataXml *dest);
	86
	87	// Skeleton
	88	void ReadSkeleton(Skeleton *skeleton);
	89
	90	void ReadBones(Skeleton *skeleton);
	91	void ReadBoneHierarchy(Skeleton *skeleton);
	92
	93	void ReadAnimations(Skeleton *skeleton);
	94	void ReadAnimationTracks(Animation *dest);
	95	void ReadAnimationKeyFrames(Animation anim, VertexAnimationTrack dest);
	96
	97	template<typename T>
	98	T ReadAttribute(const std::string &name) const;
	99	bool HasAttribute(const std::string &name) const;
	100
	101	std::string &NextNode();
	102	std::string &SkipCurrentNode();
	103
	104	bool CurrentNodeNameEquals(const std::string &name) const;
	105	std::string CurrentNodeName(bool forceRead = false);
	106
	107	XmlReader *m_reader;
	108	std::string m_currentNodeName;
	109	};
	110
	111	} // Ogre
	112	} // Assimp
	113
	114	#endif // ASSIMP_BUILD_NO_OGRE_IMPORTER
	115	#endif // AI_OGREXMLSERIALIZER_H_INC

-1

code/OptimizeMeshes.cpp less more

73	73	// That's a serious design flaw, consider redesign.
74	74	if( 0 != (pFlags & aiProcess_OptimizeMeshes) ) {
75	75	pts = (0 != (pFlags & aiProcess_SortByPType));
76		max_verts = (0 != (pFlags & aiProcess_SplitLargeMeshes)) ? 0xdeadbeef : 0;
	76	max_verts = (0 != (pFlags & aiProcess_SplitLargeMeshes)) ? 0xdeadbeef : max_verts;
77	77	return true;
78	78	}
79	79	return false;

-5

code/ParsingUtils.h less more

114	114	}
115	115	// ---------------------------------------------------------------------------------
116	116	template <class char_t>
117		inline bool SkipLine( const char_t* in, const char_t** out)
	117	AI_FORCE_INLINE bool SkipLine( const char_t* in, const char_t** out)
118	118	{
119	119	while (in != (char_t)'\r' && in != (char_t)'\n' && *in != (char_t)'\0')in++;
120	120

125	125	}
126	126	// ---------------------------------------------------------------------------------
127	127	template <class char_t>
128		inline bool SkipLine( const char_t** inout)
	128	AI_FORCE_INLINE bool SkipLine( const char_t** inout)
129	129	{
130	130	return SkipLine<char_t>(*inout,inout);
131	131	}
132	132	// ---------------------------------------------------------------------------------
133	133	template <class char_t>
134		inline bool SkipSpacesAndLineEnd( const char_t* in, const char_t** out)
	134	AI_FORCE_INLINE bool SkipSpacesAndLineEnd( const char_t* in, const char_t** out)
135	135	{
136	136	while (in == (char_t)' ' \|\| in == (char_t)'\t' \|\|
137	137	in == (char_t)'\r' \|\| in == (char_t)'\n')in++;

140	140	}
141	141	// ---------------------------------------------------------------------------------
142	142	template <class char_t>
143		inline bool SkipSpacesAndLineEnd( const char_t** inout)
	143	AI_FORCE_INLINE bool SkipSpacesAndLineEnd( const char_t** inout)
144	144	{
145	145	return SkipSpacesAndLineEnd<char_t>(*inout,inout);
146	146	}
147	147	// ---------------------------------------------------------------------------------
148	148	template <class char_t>
149		inline bool GetNextLine(const char_t*& buffer, char_t out[4096])
	149	AI_FORCE_INLINE bool GetNextLine(const char_t*& buffer, char_t out[4096])
150	150	{
151	151	if ((char_t)'\0' == *buffer)return false;
152	152

-2

code/PlyExporter.cpp less more

56	56
57	57	// we're still here - export successfully completed. Write the file.
58	58	boost::scoped_ptr<IOStream> outfile (pIOSystem->Open(pFile,"wt"));
	59	if(outfile == NULL) {
	60	throw DeadlyExportError("could not open output .ply file: " + std::string(pFile));
	61	}
	62
59	63	outfile->Write( exporter.mOutput.str().c_str(), static_cast<size_t>(exporter.mOutput.tellp()),1);
60	64	}
61	65

98	102
99	103	mOutput << "ply" << endl;
100	104	mOutput << "format ascii 1.0" << endl;
101		mOutput << "Created by Open Asset Import Library - http://assimp.sf.net (v"
	105	mOutput << "comment Created by Open Asset Import Library - http://assimp.sf.net (v"
102	106	<< aiGetVersionMajor() << '.' << aiGetVersionMinor() << '.'
103	107	<< aiGetVersionRevision() << ")" << endl;
104	108

154	158	}
155	159
156	160	mOutput << "element face " << faces << endl;
157		mOutput << "property list uint uint vertex_indices" << endl;
	161	mOutput << "property list uint uint vertex_index" << endl;
158	162	mOutput << "end_header" << endl;
159	163
160	164	for (unsigned int i = 0; i < pScene->mNumMeshes; ++i) {

-4

code/PlyParser.cpp less more

426	426	}
427	427
428	428	// ------------------------------------------------------------------------------------------------
429		bool PLY::DOM::ParseHeader (const char* pCur,const char** pCurOut)
	429	bool PLY::DOM::ParseHeader (const char* pCur,const char** pCurOut,bool isBinary)
430	430	{
431	431	ai_assert(NULL != pCur && NULL != pCurOut);
432	432	DefaultLogger::get()->debug("PLY::DOM::ParseHeader() begin");

457	457	SkipLine(&pCur);
458	458	}
459	459	}
460		SkipSpacesAndLineEnd(pCur,&pCur);
	460	if(!isBinary)
	461	{ // it would occur an error, if binary data start with values as space or line end.
	462	SkipSpacesAndLineEnd(pCur,&pCur);
	463	}
461	464	*pCurOut = pCur;
462	465
463	466	DefaultLogger::get()->debug("PLY::DOM::ParseHeader() succeeded");

526	529
527	530	DefaultLogger::get()->debug("PLY::DOM::ParseInstanceBinary() begin");
528	531
529		if(!p_pcOut->ParseHeader(pCur,&pCur))
	532	if(!p_pcOut->ParseHeader(pCur,&pCur,true))
530	533	{
531	534	DefaultLogger::get()->debug("PLY::DOM::ParseInstanceBinary() failure");
532	535	return false;

549	552	DefaultLogger::get()->debug("PLY::DOM::ParseInstance() begin");
550	553
551	554
552		if(!p_pcOut->ParseHeader(pCur,&pCur))
	555	if(!p_pcOut->ParseHeader(pCur,&pCur,false))
553	556	{
554	557	DefaultLogger::get()->debug("PLY::DOM::ParseInstance() failure");
555	558	return false;

-1

code/PlyParser.h less more

433	433
434	434	// -------------------------------------------------------------------
435	435	//! Handle the file header and read all element descriptions
436		bool ParseHeader (const char* pCur,const char** pCurOut);
	436	bool ParseHeader (const char* pCur,const char** pCurOut, bool p_bBE);
437	437
438	438	// -------------------------------------------------------------------
439	439	//! Read in all element instance lists

+32

-31

code/PostStepRegistry.cpp less more

46	46	*/
47	47
48	48	#include "AssimpPCH.h"
	49	#include "ProcessHelper.h"
49	50
50	51	#ifndef ASSIMP_BUILD_NO_CALCTANGENTS_PROCESS
51	52	# include "CalcTangentsProcess.h"

131	132	// validated - as RegisterPPStep() does - all dependencies must be given.
132	133	// ----------------------------------------------------------------------------
133	134	out.reserve(25);
	135	#if (!defined ASSIMP_BUILD_NO_MAKELEFTHANDED_PROCESS)
	136	out.push_back( new MakeLeftHandedProcess());
	137	#endif
	138	#if (!defined ASSIMP_BUILD_NO_FLIPUVS_PROCESS)
	139	out.push_back( new FlipUVsProcess());
	140	#endif
	141	#if (!defined ASSIMP_BUILD_NO_FLIPWINDINGORDER_PROCESS)
	142	out.push_back( new FlipWindingOrderProcess());
	143	#endif
134	144	#if (!defined ASSIMP_BUILD_NO_REMOVEVC_PROCESS)
135	145	out.push_back( new RemoveVCProcess());
136	146	#endif

143	153	#if (!defined ASSIMP_BUILD_NO_OPTIMIZEGRAPH_PROCESS)
144	154	out.push_back( new OptimizeGraphProcess());
145	155	#endif
	156	#if (!defined ASSIMP_BUILD_NO_FINDDEGENERATES_PROCESS)
	157	out.push_back( new FindDegeneratesProcess());
	158	#endif
	159	#ifndef ASSIMP_BUILD_NO_GENUVCOORDS_PROCESS
	160	out.push_back( new ComputeUVMappingProcess());
	161	#endif
	162	#ifndef ASSIMP_BUILD_NO_TRANSFORMTEXCOORDS_PROCESS
	163	out.push_back( new TextureTransformStep());
	164	#endif
	165	#if (!defined ASSIMP_BUILD_NO_PRETRANSFORMVERTICES_PROCESS)
	166	out.push_back( new PretransformVertices());
	167	#endif
	168	#if (!defined ASSIMP_BUILD_NO_TRIANGULATE_PROCESS)
	169	out.push_back( new TriangulateProcess());
	170	#endif
	171	#if (!defined ASSIMP_BUILD_NO_SORTBYPTYPE_PROCESS)
	172	out.push_back( new SortByPTypeProcess());
	173	#endif
	174	#if (!defined ASSIMP_BUILD_NO_FINDINVALIDDATA_PROCESS)
	175	out.push_back( new FindInvalidDataProcess());
	176	#endif
146	177	#if (!defined ASSIMP_BUILD_NO_OPTIMIZEMESHES_PROCESS)
147	178	out.push_back( new OptimizeMeshesProcess());
148		#endif
149		#if (!defined ASSIMP_BUILD_NO_FINDDEGENERATES_PROCESS)
150		out.push_back( new FindDegeneratesProcess());
151		#endif
152		#ifndef ASSIMP_BUILD_NO_GENUVCOORDS_PROCESS
153		out.push_back( new ComputeUVMappingProcess());
154		#endif
155		#ifndef ASSIMP_BUILD_NO_TRANSFORMTEXCOORDS_PROCESS
156		out.push_back( new TextureTransformStep());
157		#endif
158		#if (!defined ASSIMP_BUILD_NO_PRETRANSFORMVERTICES_PROCESS)
159		out.push_back( new PretransformVertices());
160		#endif
161		#if (!defined ASSIMP_BUILD_NO_TRIANGULATE_PROCESS)
162		out.push_back( new TriangulateProcess());
163		#endif
164		#if (!defined ASSIMP_BUILD_NO_SORTBYPTYPE_PROCESS)
165		out.push_back( new SortByPTypeProcess());
166		#endif
167		#if (!defined ASSIMP_BUILD_NO_FINDINVALIDDATA_PROCESS)
168		out.push_back( new FindInvalidDataProcess());
169	179	#endif
170	180	#if (!defined ASSIMP_BUILD_NO_FIXINFACINGNORMALS_PROCESS)
171	181	out.push_back( new FixInfacingNormalsProcess());

205	215	#if (!defined ASSIMP_BUILD_NO_SPLITLARGEMESHES_PROCESS)
206	216	out.push_back( new SplitLargeMeshesProcess_Vertex());
207	217	#endif
208		#if (!defined ASSIMP_BUILD_NO_MAKELEFTHANDED_PROCESS)
209		out.push_back( new MakeLeftHandedProcess());
210		#endif
211		#if (!defined ASSIMP_BUILD_NO_FLIPUVS_PROCESS)
212		out.push_back( new FlipUVsProcess());
213		#endif
214		#if (!defined ASSIMP_BUILD_NO_FLIPWINDINGORDER_PROCESS)
215		out.push_back( new FlipWindingOrderProcess());
216		#endif
217		#if (!defined ASSIMP_BUILD_DEBONE_PROCESS)
	218	#if (!defined ASSIMP_BUILD_NO_DEBONE_PROCESS)
218	219	out.push_back( new DeboneProcess());
219	220	#endif
220	221	#if (!defined ASSIMP_BUILD_NO_LIMITBONEWEIGHTS_PROCESS)

+12

-2

code/PretransformVertices.cpp less more

56	56	// ------------------------------------------------------------------------------------------------
57	57	// Constructor to be privately used by Importer
58	58	PretransformVertices::PretransformVertices()
59		: configKeepHierarchy (false)
	59	: configKeepHierarchy (false), configNormalize(false), configTransform(false), configTransformation()
60	60	{
61	61	}
62	62

78	78	// Setup import configuration
79	79	void PretransformVertices::SetupProperties(const Importer* pImp)
80	80	{
81		// Get the current value of AI_CONFIG_PP_PTV_KEEP_HIERARCHY and AI_CONFIG_PP_PTV_NORMALIZE
	81	// Get the current value of AI_CONFIG_PP_PTV_KEEP_HIERARCHY, AI_CONFIG_PP_PTV_NORMALIZE,
	82	// AI_CONFIG_PP_PTV_ADD_ROOT_TRANSFORMATION and AI_CONFIG_PP_PTV_ROOT_TRANSFORMATION
82	83	configKeepHierarchy = (0 != pImp->GetPropertyInteger(AI_CONFIG_PP_PTV_KEEP_HIERARCHY,0));
83	84	configNormalize = (0 != pImp->GetPropertyInteger(AI_CONFIG_PP_PTV_NORMALIZE,0));
	85	configTransform = (0 != pImp->GetPropertyInteger(AI_CONFIG_PP_PTV_ADD_ROOT_TRANSFORMATION,0));
	86
	87	configTransformation = pImp->GetPropertyMatrix(AI_CONFIG_PP_PTV_ROOT_TRANSFORMATION, aiMatrix4x4());
84	88	}
85	89
86	90	// ------------------------------------------------------------------------------------------------

390	394	ntz->mBones = reinterpret_cast<aiBone**> (&node->mTransformation);
391	395
392	396	out.push_back(ntz);
	397
	398	node->mMeshes[i] = numIn + out.size() - 1;
393	399	}
394	400	}
395	401	}

435	441	const unsigned int iOldMeshes = pScene->mNumMeshes;
436	442	const unsigned int iOldAnimationChannels = pScene->mNumAnimations;
437	443	const unsigned int iOldNodes = CountNodes(pScene->mRootNode);
	444
	445	if(configTransform) {
	446	pScene->mRootNode->mTransformation = configTransformation;
	447	}
438	448
439	449	// first compute absolute transformation matrices for all nodes
440	450	ComputeAbsoluteTransform(pScene->mRootNode);

-4

code/PretransformVertices.h less more

51	51	namespace Assimp {
52	52
53	53	// ---------------------------------------------------------------------------
54		/** The PretransformVertices pretransforms all vertices in the nodegraph
	54	/** The PretransformVertices pre-transforms all vertices in the node tree
55	55	* and removes the whole graph. The output is a list of meshes, one for
56	56	* each material.
57	57	*/
58		class PretransformVertices : public BaseProcess
	58	class ASSIMP_API PretransformVertices : public BaseProcess
59	59	{
60	60	public:
61	61

151	151
152	152
153	153	//! Configuration option: keep scene hierarchy as long as possible
154		bool configKeepHierarchy, configNormalize;
155
	154	bool configKeepHierarchy;
	155	bool configNormalize;
	156	bool configTransform;
	157	aiMatrix4x4 configTransformation;
156	158	};
157	159
158	160	} // end of namespace Assimp

+46

-59

code/Q3BSPFileData.h less more

41	41
42	42	#include <vector>
43	43
44		namespace Assimp
45		{
46		namespace Q3BSP
47		{
	44	namespace Assimp {
	45	namespace Q3BSP {
48	46
49	47	static const unsigned int CE_BSP_LIGHTMAPWIDTH = 128;
50	48	static const unsigned int CE_BSP_LIGHTMAPHEIGHT = 128;

53	51	static const int VERION_Q3LEVEL = 46; ///< Supported version.
54	52
55	53	/// Geometric type enumeration
56		enum Q3BSPGeoType
57		{
	54	enum Q3BSPGeoType {
58	55	Polygon = 1,
59	56	Patch,
60	57	TriangleMesh,

62	59	};
63	60
64	61	/// Integer vector.
65		struct ceVec3i
66		{
	62	struct ceVec3i {
67	63	int x, y, z;
68	64	ceVec3i(): x( 0 ), y( 0 ), z( 0 ) { /* empty */ }
69	65	ceVec3i( int iX, int iY=0, int iZ=0) : x( iX ), y( iY ), z( iZ ) { /* empty */ }
70	66	};
71	67
72		/// Fileheader
73		struct sQ3BSPHeader
74		{
75		char strID[ 4 ]; //!< Should be "IBSP"
76		int iVersion; //!< 46 for standard levels
77		};
78
79		/// Descripes an entry.
	68	/// the file header
	69	struct sQ3BSPHeader {
	70	char strID[ 4 ]; ///< Should be "IBSP"
	71	int iVersion; ///< 46 for standard levels
	72	};
	73
	74	/// Describes an entry.
80	75	struct sQ3BSPLump
81	76	{
82		int iOffset; ///< Offset from startpointer of file
83		int iSize; ///< Size fo part
	77	int iOffset; ///< Offset from start pointer of file
	78	int iSize; ///< Size of part
84	79	};
85	80
86	81	struct vec2f

107	102	struct sQ3BSPFace
108	103	{
109	104	int iTextureID; ///< Index in texture array
110		int iEffect; ///< Index in effectarray (-1 = no effect)
	105	int iEffect; ///< Index in effect array (-1 = no effect)
111	106	int iType; ///< 1=Polygon, 2=Patch, 3=Mesh, 4=Billboard
112	107	int iVertexIndex; ///< Start index of polygon
113	108	int iNumOfVerts; ///< Number of vertices
114	109	int iFaceVertexIndex; ///< Index of first mesh vertex
115		int iNumOfFaceVerts; ///< Anzahl der Meshvertices
116		int iLightmapID; ///< Index to the lightmap array
117		int iLMapCorner[ 2 ]; ///< Die Ecke der Lightmap in der Textur
118		int iLMapSize[ 2 ]; ///< Size of the lightmap stored on the texture
119		vec3f vLMapPos; ///< 3D-Ursprung der Lightmap
120		vec3f vLMapVecs[ 2 ]; ///< 3D-s-t-Vektoren
121		vec3f vNormal; ///< Polygonnormale
	110	int iNumOfFaceVerts; ///< number of mesh vertices
	111	int iLightmapID; ///< Index to the light-map array
	112	int iLMapCorner[ 2 ]; ///< edge of the light-map in texture
	113	int iLMapSize[ 2 ]; ///< Size of the light-map stored on the texture
	114	vec3f vLMapPos; ///< 3D origin of the light-map
	115	vec3f vLMapVecs[ 2 ]; ///< 3D-s-t-vectors
	116	vec3f vNormal; ///< Polygon normals
122	117	int patchWidth, patchHeight; ///< bezier patch
123	118	};
124	119
125	120	/// A quake3 texture name.
126		struct sQ3BSPTexture
127		{
128		char strName[ 64 ]; ///< Name of the texture without extention
	121	struct sQ3BSPTexture {
	122	char strName[ 64 ]; ///< Name of the texture without extension
129	123	int iFlags; ///< Not used
130	124	int iContents; ///< Not used
131	125	};
132	126
133		/// A lightmap of the level, size 128 x 128, RGB components.
134		struct sQ3BSPLightmap
135		{
	127	/// A light-map of the level, size 128 x 128, RGB components.
	128	struct sQ3BSPLightmap {
136	129	unsigned char bLMapData[ CE_BSP_LIGHTMAPSIZE ];
137		sQ3BSPLightmap()
138		{
139		memset(bLMapData, 0, CE_BSP_LIGHTMAPSIZE );
	130	sQ3BSPLightmap() {
	131	::memset(bLMapData, 0, CE_BSP_LIGHTMAPSIZE );
140	132	}
141	133	};
142	134
143		struct SubPatch
144		{
	135	struct SubPatch {
145	136	std::vector<size_t> indices;
146	137	int lightmapID;
147	138	};
148	139
149		enum eLumps
150		{
	140	enum eLumps {
151	141	kEntities = 0,
152	142	kTextures,
153	143	kPlanes,

168	158	kMaxLumps
169	159	};
170	160
171		struct Q3BSPModel
172		{
	161	struct Q3BSPModel {
173	162	std::vector<unsigned char> m_Data;
174	163	std::vector<sQ3BSPLump*> m_Lumps;
175	164	std::vector<sQ3BSPVertex*> m_Vertices;

194	183	// empty
195	184	}
196	185
197		~Q3BSPModel()
198		{
199		for ( unsigned int i=0; i<m_Lumps.size(); i++ )
200		if ( NULL != m_Lumps[i] )
201		delete m_Lumps[i];
202
203		for ( unsigned int i=0; i<m_Vertices.size(); i++ )
204		if ( NULL != m_Vertices[ i ] )
205		delete m_Vertices[ i ];
206		for ( unsigned int i=0; i<m_Faces.size(); i++ )
207		if ( NULL != m_Faces[ i ] )
208		delete m_Faces[ i ];
209		for ( unsigned int i=0; i<m_Textures.size(); i++ )
210		if ( NULL != m_Textures[ i ] )
211		delete m_Textures[ i ];
212		for ( unsigned int i=0; i<m_Lightmaps.size(); i++ )
213		if ( NULL != m_Lightmaps[ i ] )
214		delete m_Lightmaps[ i ];
	186	~Q3BSPModel() {
	187	for ( unsigned int i=0; i<m_Lumps.size(); i++ ) {
	188	delete m_Lumps[ i ];
	189	}
	190	for ( unsigned int i=0; i<m_Vertices.size(); i++ ) {
	191	delete m_Vertices[ i ];
	192	}
	193	for ( unsigned int i=0; i<m_Faces.size(); i++ ) {
	194	delete m_Faces[ i ];
	195	}
	196	for ( unsigned int i=0; i<m_Textures.size(); i++ ) {
	197	delete m_Textures[ i ];
	198	}
	199	for ( unsigned int i=0; i<m_Lightmaps.size(); i++ ) {
	200	delete m_Lightmaps[ i ];
	201	}
215	202
216	203	m_Lumps.clear();
217	204	m_Vertices.clear();

+40

-53

code/Q3BSPFileImporter.cpp less more

70	70	"pk3"
71	71	};
72	72
73		namespace Assimp
74		{
75
	73	namespace Assimp {
	74
	75	static void getSupportedExtensions(std::vector<std::string> &supportedExtensions) {
	76	supportedExtensions.push_back( ".jpg" );
	77	supportedExtensions.push_back( ".png" );
	78	supportedExtensions.push_back( ".tga" );
	79	}
	80
76	81	using namespace Q3BSP;
77	82
78	83	// ------------------------------------------------------------------------------------------------

85	90	}
86	91
87	92	// ------------------------------------------------------------------------------------------------
88		// Local function to extract the texture ids from a material keyname.
	93	// Local function to extract the texture ids from a material key-name.
89	94	static void extractIds( const std::string &rKey, int &rId1, int &rId2 )
90	95	{
91	96	rId1 = -1;

145	150
146	151	// ------------------------------------------------------------------------------------------------
147	152	// Destructor.
148		Q3BSPFileImporter::~Q3BSPFileImporter()
149		{
150		// For lint
	153	Q3BSPFileImporter::~Q3BSPFileImporter() {
151	154	m_pCurrentMesh = NULL;
152	155	m_pCurrentFace = NULL;
153	156
154	157	// Clear face-to-material map
155		for ( FaceMap::iterator it = m_MaterialLookupMap.begin(); it != m_MaterialLookupMap.end();
156		++it )
157		{
158		const std::string matName = (*it).first;
159		if ( matName.empty() )
160		{
161		continue;
162		}
163
164		std::vector<Q3BSP::sQ3BSPFace> pCurFaceArray = (*it).second;
165		delete pCurFaceArray;
	158	for ( FaceMap::iterator it = m_MaterialLookupMap.begin(); it != m_MaterialLookupMap.end(); ++it ) {
	159	const std::string &matName = it->first;
	160	if ( !matName.empty() ) {
	161	delete it->second;
	162	}
166	163	}
167	164	m_MaterialLookupMap.clear();
168	165	}

187	184
188	185	// ------------------------------------------------------------------------------------------------
189	186	// Import method.
190		void Q3BSPFileImporter::InternReadFile(const std::string &rFile, aiScene* pScene, IOSystem* /pIOHandler/)
191		{
192		Q3BSPZipArchive Archive( rFile );
	187	void Q3BSPFileImporter::InternReadFile(const std::string &rFile, aiScene* pScene, IOSystem* pIOHandler)
	188	{
	189	Q3BSPZipArchive Archive( pIOHandler, rFile );
193	190	if ( !Archive.isOpen() )
194	191	{
195	192	throw DeadlyImportError( "Failed to open file " + rFile + "." );

565	562	}
566	563
567	564	// ------------------------------------------------------------------------------------------------
568		// Counts the number of triangles in a Q3-facearray.
	565	// Counts the number of triangles in a Q3-face-array.
569	566	size_t Q3BSPFileImporter::countTriangles( const std::vector<Q3BSP::sQ3BSPFace*> &rArray ) const
570	567	{
571	568	size_t numTriangles = 0;

616	613	// Returns the next face.
617	614	aiFace Q3BSPFileImporter::getNextFace( aiMesh pMesh, unsigned int &rFaceIdx )
618	615	{
619		aiFace *pFace = NULL;
620		if ( rFaceIdx < pMesh->mNumFaces )
621		{
	616	aiFace *pFace( NULL );
	617	if ( rFaceIdx < pMesh->mNumFaces ) {
622	618	pFace = &pMesh->mFaces[ rFaceIdx ];
623	619	rFaceIdx++;
624	620	}
625		else
626		{
627		pFace = NULL;
628		}
629	621
630	622	return pFace;
631	623	}

633	625	// ------------------------------------------------------------------------------------------------
634	626	// Imports a texture file.
635	627	bool Q3BSPFileImporter::importTextureFromArchive( const Q3BSP::Q3BSPModel *pModel,
636		Q3BSP::Q3BSPZipArchive pArchive, aiScene /pScene/,
637		aiMaterial *pMatHelper, int textureId )
638		{
639		std::vector<std::string> supportedExtensions;
640		supportedExtensions.push_back( ".jpg" );
641		supportedExtensions.push_back( ".png" );
642		if ( NULL == pArchive \|\| NULL == pArchive \|\| NULL == pMatHelper )
643		{
	628	Q3BSP::Q3BSPZipArchive pArchive, aiScene,
	629	aiMaterial *pMatHelper, int textureId ) {
	630	if ( NULL == pArchive \|\| NULL == pArchive \|\| NULL == pMatHelper ) {
644	631	return false;
645	632	}
646	633
647		if ( textureId < 0 \|\| textureId >= static_cast<int>( pModel->m_Textures.size() ) )
648		{
	634	if ( textureId < 0 \|\| textureId >= static_cast<int>( pModel->m_Textures.size() ) ) {
649	635	return false;
650	636	}
651	637
652	638	bool res = true;
653	639	sQ3BSPTexture *pTexture = pModel->m_Textures[ textureId ];
654		if ( NULL == pTexture )
655		return false;
656
	640	if ( !pTexture ) {
	641	return false;
	642	}
	643
	644	std::vector<std::string> supportedExtensions;
	645	supportedExtensions.push_back( ".jpg" );
	646	supportedExtensions.push_back( ".png" );
	647	supportedExtensions.push_back( ".tga" );
657	648	std::string textureName, ext;
658		if ( expandFile( pArchive, pTexture->strName, supportedExtensions, textureName, ext ) )
659		{
	649	if ( expandFile( pArchive, pTexture->strName, supportedExtensions, textureName, ext ) ) {
660	650	IOStream *pTextureStream = pArchive->Open( textureName.c_str() );
661		if ( NULL != pTextureStream )
662		{
	651	if ( !pTextureStream ) {
663	652	size_t texSize = pTextureStream->FileSize();
664	653	aiTexture *pTexture = new aiTexture;
665	654	pTexture->mHeight = 0;

669	658	(void)readSize;
670	659	ai_assert( readSize == pTexture->mWidth );
671	660	pTexture->pcData = reinterpret_cast<aiTexel*>( pData );
672		pTexture->achFormatHint[ 0 ] = ext[ 0 ];
673		pTexture->achFormatHint[ 1 ] = ext[ 1 ];
674		pTexture->achFormatHint[ 2 ] = ext[ 2 ];
675		pTexture->achFormatHint[ 2 ] = '\0';
	661	pTexture->achFormatHint[ 0 ] = ext[ 1 ];
	662	pTexture->achFormatHint[ 1 ] = ext[ 2 ];
	663	pTexture->achFormatHint[ 2 ] = ext[ 3 ];
	664	pTexture->achFormatHint[ 3 ] = '\0';
676	665	res = true;
677	666
678	667	aiString name;

683	672
684	673	pMatHelper->AddProperty( &name, AI_MATKEY_TEXTURE_DIFFUSE( 0 ) );
685	674	mTextures.push_back( pTexture );
686		}
687		else
688		{
	675	} else {
689	676	// If it doesn't exist in the archive, it is probably just a reference to an external file.
690	677	// We'll leave it up to the user to figure out which extension the file has.
691	678	aiString name;

-0

code/Q3BSPFileParser.cpp less more

37	37	----------------------------------------------------------------------
38	38	*/
39	39	#include "AssimpPCH.h"
	40
	41	#ifndef ASSIMP_BUILD_NO_Q3BSP_IMPORTER
	42
40	43	#include "Q3BSPFileParser.h"
41	44	#include "DefaultIOSystem.h"
42	45	#include "Q3BSPFileData.h"

272	275	// ------------------------------------------------------------------------------------------------
273	276
274	277	} // Namespace Assimp
	278
	279	#endif // ASSIMP_BUILD_NO_Q3BSP_IMPORTER

+234

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code/Q3BSPZipArchive.cpp less more

38	38	*/
39	39
40	40	#include "AssimpPCH.h"
	41
	42	#ifndef ASSIMP_BUILD_NO_Q3BSP_IMPORTER
	43
41	44	#include "Q3BSPZipArchive.h"
42	45	#include <algorithm>
43	46	#include <cassert>
44	47
45		namespace Assimp
46		{
47		namespace Q3BSP
48		{
	48	namespace Assimp {
	49	namespace Q3BSP {
	50
	51	voidpf IOSystem2Unzip::open(voidpf opaque, const char* filename, int mode) {
	52	IOSystem* io_system = (IOSystem*) opaque;
	53
	54	const char* mode_fopen = NULL;
	55	if((mode & ZLIB_FILEFUNC_MODE_READWRITEFILTER)==ZLIB_FILEFUNC_MODE_READ) {
	56	mode_fopen = "rb";
	57	} else {
	58	if(mode & ZLIB_FILEFUNC_MODE_EXISTING) {
	59	mode_fopen = "r+b";
	60	} else {
	61	if(mode & ZLIB_FILEFUNC_MODE_CREATE) {
	62	mode_fopen = "wb";
	63	}
	64	}
	65	}
	66
	67	return (voidpf) io_system->Open(filename, mode_fopen);
	68	}
	69
	70	uLong IOSystem2Unzip::read(voidpf opaque, voidpf stream, void* buf, uLong size) {
	71	IOStream* io_stream = (IOStream*) stream;
	72
	73	return io_stream->Read(buf, 1, size);
	74	}
	75
	76	uLong IOSystem2Unzip::write(voidpf opaque, voidpf stream, const void* buf, uLong size) {
	77	IOStream* io_stream = (IOStream*) stream;
	78
	79	return io_stream->Write(buf, 1, size);
	80	}
	81
	82	long IOSystem2Unzip::tell(voidpf opaque, voidpf stream) {
	83	IOStream* io_stream = (IOStream*) stream;
	84
	85	return io_stream->Tell();
	86	}
	87
	88	long IOSystem2Unzip::seek(voidpf opaque, voidpf stream, uLong offset, int origin) {
	89	IOStream* io_stream = (IOStream*) stream;
	90
	91	aiOrigin assimp_origin;
	92	switch (origin) {
	93	default:
	94	case ZLIB_FILEFUNC_SEEK_CUR:
	95	assimp_origin = aiOrigin_CUR;
	96	break;
	97	case ZLIB_FILEFUNC_SEEK_END:
	98	assimp_origin = aiOrigin_END;
	99	break;
	100	case ZLIB_FILEFUNC_SEEK_SET:
	101	assimp_origin = aiOrigin_SET;
	102	break;
	103	}
	104
	105	return (io_stream->Seek(offset, assimp_origin) == aiReturn_SUCCESS ? 0 : -1);
	106	}
	107
	108	int IOSystem2Unzip::close(voidpf opaque, voidpf stream) {
	109	IOSystem* io_system = (IOSystem*) opaque;
	110	IOStream* io_stream = (IOStream*) stream;
	111
	112	io_system->Close(io_stream);
	113
	114	return 0;
	115	}
	116
	117	int IOSystem2Unzip::testerror(voidpf opaque, voidpf stream) {
	118	return 0;
	119	}
	120
	121	zlib_filefunc_def IOSystem2Unzip::get(IOSystem* pIOHandler) {
	122	zlib_filefunc_def mapping;
	123
	124	mapping.zopen_file = open;
	125	mapping.zread_file = read;
	126	mapping.zwrite_file = write;
	127	mapping.ztell_file = tell;
	128	mapping.zseek_file = seek;
	129	mapping.zclose_file = close;
	130	mapping.zerror_file = testerror;
	131	mapping.opaque = (voidpf) pIOHandler;
	132
	133	return mapping;
	134	}
	135
	136	// ------------------------------------------------------------------------------------------------
	137	ZipFile::ZipFile(size_t size) : m_Size(size) {
	138	ai_assert(m_Size != 0);
	139
	140	m_Buffer = std::malloc(m_Size);
	141	}
	142
	143	ZipFile::~ZipFile() {
	144	std::free(m_Buffer);
	145	m_Buffer = NULL;
	146	}
	147
	148	size_t ZipFile::Read(void* pvBuffer, size_t pSize, size_t pCount) {
	149	const size_t size = pSize * pCount;
	150	assert(size <= m_Size);
	151
	152	std::memcpy(pvBuffer, m_Buffer, size);
	153
	154	return size;
	155	}
	156
	157	size_t ZipFile::Write(const void* /pvBuffer/, size_t /pSize/, size_t /pCount/) {
	158	return 0;
	159	}
	160
	161	size_t ZipFile::FileSize() const {
	162	return m_Size;
	163	}
	164
	165	aiReturn ZipFile::Seek(size_t /pOffset/, aiOrigin /pOrigin/) {
	166	return aiReturn_FAILURE;
	167	}
	168
	169	size_t ZipFile::Tell() const {
	170	return 0;
	171	}
	172
	173	void ZipFile::Flush() {
	174	// empty
	175	}
49	176
50	177	// ------------------------------------------------------------------------------------------------
51	178	// Constructor.
52		Q3BSPZipArchive::Q3BSPZipArchive( const std::string& rFile ) :
53		m_ZipFileHandle( NULL ),
54		m_FileList(),
55		m_bDirty( true )
56		{
57		if ( !rFile.empty() )
58		{
59		m_ZipFileHandle = unzOpen( rFile.c_str() );
60		if ( NULL != m_ZipFileHandle )
61		{
	179	Q3BSPZipArchive::Q3BSPZipArchive(IOSystem* pIOHandler, const std::string& rFile) : m_ZipFileHandle(NULL), m_ArchiveMap() {
	180	if (! rFile.empty()) {
	181	zlib_filefunc_def mapping = IOSystem2Unzip::get(pIOHandler);
	182
	183	m_ZipFileHandle = unzOpen2(rFile.c_str(), &mapping);
	184
	185	if(m_ZipFileHandle != NULL) {
62	186	mapArchive();
63	187	}
64	188	}

66	190
67	191	// ------------------------------------------------------------------------------------------------
68	192	// Destructor.
69		Q3BSPZipArchive::~Q3BSPZipArchive()
70		{
71		if ( NULL != m_ZipFileHandle )
72		{
73		unzClose( m_ZipFileHandle );
74		}
75		m_ZipFileHandle = NULL;
76		m_FileList.clear();
	193	Q3BSPZipArchive::~Q3BSPZipArchive() {
	194	for( std::map<std::string, ZipFile*>::iterator it(m_ArchiveMap.begin()), end(m_ArchiveMap.end()); it != end; ++it ) {
	195	delete it->second;
	196	}
	197	m_ArchiveMap.clear();
	198
	199	if(m_ZipFileHandle != NULL) {
	200	unzClose(m_ZipFileHandle);
	201	m_ZipFileHandle = NULL;
	202	}
77	203	}
78	204
79	205	// ------------------------------------------------------------------------------------------------
80	206	// Returns true, if the archive is already open.
81		bool Q3BSPZipArchive::isOpen() const
82		{
83		return ( NULL != m_ZipFileHandle );
	207	bool Q3BSPZipArchive::isOpen() const {
	208	return (m_ZipFileHandle != NULL);
84	209	}
85	210
86	211	// ------------------------------------------------------------------------------------------------
87	212	// Returns true, if the filename is part of the archive.
88		bool Q3BSPZipArchive::Exists( const char* pFile ) const
89		{
90		ai_assert( NULL != pFile );
91		if ( NULL == pFile )
92		{
93		return false;
94		}
95
96		std::string rFile( pFile );
97		std::vector<std::string>::const_iterator it = std::find( m_FileList.begin(), m_FileList.end(), rFile );
98		if ( m_FileList.end() == it )
99		{
100		return false;
101		}
102
103		return true;
	213	bool Q3BSPZipArchive::Exists(const char* pFile) const {
	214	ai_assert(pFile != NULL);
	215
	216	bool exist = false;
	217
	218	if (pFile != NULL) {
	219	std::string rFile(pFile);
	220	std::map<std::string, ZipFile*>::const_iterator it = m_ArchiveMap.find(rFile);
	221
	222	if(it != m_ArchiveMap.end()) {
	223	exist = true;
	224	}
	225	}
	226
	227	return exist;
104	228	}
105	229
106	230	// ------------------------------------------------------------------------------------------------
107	231	// Returns the separator delimiter.
108		char Q3BSPZipArchive::getOsSeparator() const
109		{
	232	char Q3BSPZipArchive::getOsSeparator() const {
	233	#ifndef _WIN32
110	234	return '/';
	235	#else
	236	return '\\';
	237	#endif
111	238	}
112	239
113	240	// ------------------------------------------------------------------------------------------------
114	241	// Opens a file, which is part of the archive.
115		IOStream Q3BSPZipArchive::Open( const char pFile, const char* /pMode/ )
116		{
117		ai_assert( NULL != pFile );
118
119		std::string rItem( pFile );
120		std::vector<std::string>::iterator it = std::find( m_FileList.begin(), m_FileList.end(), rItem );
121		if ( m_FileList.end() == it )
122		return NULL;
123
124		ZipFile pZipFile = new ZipFile( it, m_ZipFileHandle );
125		m_ArchiveMap[ rItem ] = pZipFile;
126
127		return pZipFile;
	242	IOStream Q3BSPZipArchive::Open(const char pFile, const char* /pMode/) {
	243	ai_assert(pFile != NULL);
	244
	245	IOStream* result = NULL;
	246
	247	std::map<std::string, ZipFile*>::iterator it = m_ArchiveMap.find(pFile);
	248
	249	if(it != m_ArchiveMap.end()) {
	250	result = (IOStream*) it->second;
	251	}
	252
	253	return result;
128	254	}
129	255
130	256	// ------------------------------------------------------------------------------------------------
131	257	// Close a filestream.
132		void Q3BSPZipArchive::Close( IOStream *pFile )
133		{
134		ai_assert( NULL != pFile );
135
136		std::map<std::string, IOStream*>::iterator it;
137		for ( it = m_ArchiveMap.begin(); it != m_ArchiveMap.end(); ++it )
138		{
139		if ( (*it).second == pFile )
140		{
141		ZipFile pZipFile = reinterpret_cast<ZipFile>( (*it).second );
142		delete pZipFile;
143		m_ArchiveMap.erase( it );
144		break;
	258	void Q3BSPZipArchive::Close(IOStream *pFile) {
	259	ai_assert(pFile != NULL);
	260
	261	// We don't do anything in case the file would be opened again in the future
	262	}
	263	// ------------------------------------------------------------------------------------------------
	264	// Returns the file-list of the archive.
	265	void Q3BSPZipArchive::getFileList(std::vector<std::string> &rFileList) {
	266	rFileList.clear();
	267
	268	for(std::map<std::string, ZipFile*>::iterator it(m_ArchiveMap.begin()), end(m_ArchiveMap.end()); it != end; ++it) {
	269	rFileList.push_back(it->first);
	270	}
	271	}
	272
	273	// ------------------------------------------------------------------------------------------------
	274	// Maps the archive content.
	275	bool Q3BSPZipArchive::mapArchive() {
	276	bool success = false;
	277
	278	if(m_ZipFileHandle != NULL) {
	279	if(m_ArchiveMap.empty()) {
	280	// At first ensure file is already open
	281	if(unzGoToFirstFile(m_ZipFileHandle) == UNZ_OK) {
	282	// Loop over all files
	283	do {
	284	char filename[FileNameSize];
	285	unz_file_info fileInfo;
	286
	287	if(unzGetCurrentFileInfo(m_ZipFileHandle, &fileInfo, filename, FileNameSize, NULL, 0, NULL, 0) == UNZ_OK) {
	288	// The file has EXACTLY the size of uncompressed_size. In C
	289	// you need to mark the last character with '\0', so add
	290	// another character
	291	if(unzOpenCurrentFile(m_ZipFileHandle) == UNZ_OK) {
	292	std::pair<std::map<std::string, ZipFile*>::iterator, bool> result = m_ArchiveMap.insert(std::make_pair(filename, new ZipFile(fileInfo.uncompressed_size)));
	293
	294	if(unzReadCurrentFile(m_ZipFileHandle, result.first->second->m_Buffer, fileInfo.uncompressed_size) == (long int) fileInfo.uncompressed_size) {
	295	if(unzCloseCurrentFile(m_ZipFileHandle) == UNZ_OK) {
	296	// Nothing to do anymore...
	297	}
	298	}
	299	}
	300	}
	301	} while(unzGoToNextFile(m_ZipFileHandle) != UNZ_END_OF_LIST_OF_FILE);
	302	}
145	303	}
146		}
147		}
148		// ------------------------------------------------------------------------------------------------
149		// Returns the file-list of the archive.
150		void Q3BSPZipArchive::getFileList( std::vector<std::string> &rFileList )
151		{
152		rFileList = m_FileList;
153		}
154
155		// ------------------------------------------------------------------------------------------------
156		// Maps the archive content.
157		bool Q3BSPZipArchive::mapArchive()
158		{
159		if ( NULL == m_ZipFileHandle )
160		return false;
161
162		if ( !m_bDirty )
163		return true;
164
165		if ( !m_FileList.empty() )
166		m_FileList.resize( 0 );
167
168		// At first ensure file is already open
169		if ( UNZ_OK == unzGoToFirstFile( m_ZipFileHandle ) )
170		{
171		char filename[ FileNameSize ];
172		unzGetCurrentFileInfo( m_ZipFileHandle, NULL, filename, FileNameSize, NULL, 0, NULL, 0 );
173		m_FileList.push_back( filename );
174		unzCloseCurrentFile( m_ZipFileHandle );
175
176		// Loop over all files
177		while ( unzGoToNextFile( m_ZipFileHandle ) != UNZ_END_OF_LIST_OF_FILE )
178		{
179		char filename[ FileNameSize ];
180		unzGetCurrentFileInfo( m_ZipFileHandle, NULL, filename, FileNameSize, NULL, 0, NULL, 0 );
181		m_FileList.push_back( filename );
182		unzCloseCurrentFile( m_ZipFileHandle );
183		}
184		}
185
186		std::sort( m_FileList.begin(), m_FileList.end() );
187		m_bDirty = false;
188
189		return true;
	304
	305	success = true;
	306	}
	307
	308	return success;
190	309	}
191	310
192	311	// ------------------------------------------------------------------------------------------------
193	312
194	313	} // Namespace Q3BSP
195	314	} // Namespace Assimp
	315
	316	#endif // ASSIMP_BUILD_NO_Q3BSP_IMPORTER

+79

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code/Q3BSPZipArchive.h less more

47	47	#include <map>
48	48	#include <cassert>
49	49
50		namespace Assimp
51		{
52		namespace Q3BSP
53		{
	50	namespace Assimp {
	51	namespace Q3BSP {
	52
	53	// ------------------------------------------------------------------------------------------------
	54	/// \class IOSystem2Unzip
	55	/// \ingroup Assimp::Q3BSP
	56	///
	57	/// \brief
	58	// ------------------------------------------------------------------------------------------------
	59	class IOSystem2Unzip {
	60
	61	public:
	62
	63	static voidpf open(voidpf opaque, const char* filename, int mode);
	64
	65	static uLong read(voidpf opaque, voidpf stream, void* buf, uLong size);
	66
	67	static uLong write(voidpf opaque, voidpf stream, const void* buf, uLong size);
	68
	69	static long tell(voidpf opaque, voidpf stream);
	70
	71	static long seek(voidpf opaque, voidpf stream, uLong offset, int origin);
	72
	73	static int close(voidpf opaque, voidpf stream);
	74
	75	static int testerror(voidpf opaque, voidpf stream);
	76
	77	static zlib_filefunc_def get(IOSystem* pIOHandler);
	78	};
54	79
55	80	// ------------------------------------------------------------------------------------------------
56	81	/// \class ZipFile

58	83	///
59	84	/// \brief
60	85	// ------------------------------------------------------------------------------------------------
61		class ZipFile : public IOStream
62		{
63		public:
64		ZipFile( const std::string &rFileName, unzFile zipFile ) :
65		m_Name( rFileName ),
66		m_zipFile( zipFile )
67		{
68		ai_assert( NULL != m_zipFile );
69		}
	86	class ZipFile : public IOStream {
	87
	88	friend class Q3BSPZipArchive;
	89
	90	public:
	91
	92	ZipFile(size_t size);
70	93
71		~ZipFile()
72		{
73		m_zipFile = NULL;
74		}
	94	~ZipFile();
75	95
76		size_t Read(void* pvBuffer, size_t pSize, size_t pCount )
77		{
78		size_t bytes_read = 0;
79		if ( NULL == m_zipFile )
80		return bytes_read;
81
82		// search file and place file pointer there
83		if ( unzLocateFile( m_zipFile, m_Name.c_str(), 0 ) == UNZ_OK )
84		{
85		// get file size, etc.
86		unz_file_info fileInfo;
87		unzGetCurrentFileInfo( m_zipFile, &fileInfo, 0, 0, 0, 0, 0, 0 );
88		const size_t size = pSize * pCount;
89		assert( size <= fileInfo.uncompressed_size );
90
91		// The file has EXACTLY the size of uncompressed_size. In C
92		// you need to mark the last character with '\0', so add
93		// another character
94		unzOpenCurrentFile( m_zipFile );
95		const int ret = unzReadCurrentFile( m_zipFile, pvBuffer, fileInfo.uncompressed_size);
96		size_t filesize = fileInfo.uncompressed_size;
97		if ( ret < 0 \|\| size_t(ret) != filesize )
98		{
99		return 0;
100		}
101		bytes_read = ret;
102		unzCloseCurrentFile( m_zipFile );
103		}
104		return bytes_read;
105		}
	96	size_t Read(void* pvBuffer, size_t pSize, size_t pCount );
106	97
107		size_t Write(const void* /pvBuffer/, size_t /pSize/, size_t /pCount/)
108		{
109		return 0;
110		}
	98	size_t Write(const void* /pvBuffer/, size_t /pSize/, size_t /pCount/);
111	99
112		size_t FileSize() const
113		{
114		if ( NULL == m_zipFile )
115		return 0;
116		if ( unzLocateFile( m_zipFile, m_Name.c_str(), 0 ) == UNZ_OK )
117		{
118		unz_file_info fileInfo;
119		unzGetCurrentFileInfo( m_zipFile, &fileInfo, 0, 0, 0, 0, 0, 0 );
120		return fileInfo.uncompressed_size;
121		}
122		return 0;
123		}
	100	size_t FileSize() const;
124	101
125		aiReturn Seek(size_t /pOffset/, aiOrigin /pOrigin/)
126		{
127		return aiReturn_FAILURE;
128		}
	102	aiReturn Seek(size_t /pOffset/, aiOrigin /pOrigin/);
129	103
130		size_t Tell() const
131		{
132		return 0;
133		}
	104	size_t Tell() const;
134	105
135		void Flush()
136		{
137		// empty
138		}
	106	void Flush();
139	107
140		private:
141		std::string m_Name;
142		unzFile m_zipFile;
	108	private:
	109
	110	void* m_Buffer;
	111
	112	size_t m_Size;
143	113	};
144	114
145	115	// ------------------------------------------------------------------------------------------------

149	119	/// \brief IMplements a zip archive like the WinZip archives. Will be also used to import data
150	120	/// from a P3K archive ( Quake level format ).
151	121	// ------------------------------------------------------------------------------------------------
152		class Q3BSPZipArchive : public Assimp::IOSystem
153		{
154		public:
155		static const unsigned int FileNameSize = 256;
	122	class Q3BSPZipArchive : public Assimp::IOSystem {
156	123
157		public:
158		Q3BSPZipArchive( const std::string & rFile );
159		~Q3BSPZipArchive();
160		bool Exists( const char* pFile) const;
161		char getOsSeparator() const;
162		IOStream* Open(const char* pFile, const char* pMode = "rb");
163		void Close( IOStream* pFile);
164		bool isOpen() const;
165		void getFileList( std::vector<std::string> &rFileList );
	124	public:
166	125
167		private:
168		bool mapArchive();
	126	static const unsigned int FileNameSize = 256;
169	127
170		private:
171		unzFile m_ZipFileHandle;
172		std::map<std::string, IOStream*> m_ArchiveMap;
173		std::vector<std::string> m_FileList;
174		bool m_bDirty;
	128	public:
	129
	130	Q3BSPZipArchive(IOSystem* pIOHandler, const std::string & rFile);
	131
	132	~Q3BSPZipArchive();
	133
	134	bool Exists(const char* pFile) const;
	135
	136	char getOsSeparator() const;
	137
	138	IOStream* Open(const char* pFile, const char* pMode = "rb");
	139
	140	void Close(IOStream* pFile);
	141
	142	bool isOpen() const;
	143
	144	void getFileList(std::vector<std::string> &rFileList);
	145
	146	private:
	147
	148	bool mapArchive();
	149
	150	private:
	151
	152	unzFile m_ZipFileHandle;
	153
	154	std::map<std::string, ZipFile*> m_ArchiveMap;
	155
175	156	};
176	157
177	158	// ------------------------------------------------------------------------------------------------

-2

code/Q3DLoader.cpp less more

378	378	light->mColorSpecular = light->mColorDiffuse;
379	379
380	380
381		// We don't need the rest, but we need to know where
382		// this fucking chunk ends.
	381	// We don't need the rest, but we need to know where this chunk ends.
383	382	unsigned int temp = (unsigned int)(stream.GetI4() * stream.GetI4());
384	383
385	384	// skip the background file name

-1

code/RemoveComments.h less more

54	54	* to those in C or C++ so this code has been moved to a separate
55	55	* module.
56	56	*/
57		class CommentRemover
	57	class ASSIMP_API CommentRemover
58	58	{
59	59	// class cannot be instanced
60	60	CommentRemover() {}

+23

-15

code/RemoveRedundantMaterials.cpp less more

85	85	{
86	86	DefaultLogger::get()->debug("RemoveRedundantMatsProcess begin");
87	87
88		unsigned int iCnt = 0, unreferenced = 0;
	88	unsigned int redundantRemoved = 0, unreferencedRemoved = 0;
89	89	if (pScene->mNumMaterials)
90	90	{
91	91	// Find out which materials are referenced by meshes

124	124	}
125	125	}
126	126
127
128	127	// TODO: reimplement this algorithm to work in-place
129
130	128	unsigned int* aiMappingTable = new unsigned int[pScene->mNumMaterials];
131	129	unsigned int iNewNum = 0;
132	130

138	136	aiHashes = new uint32_t[pScene->mNumMaterials];
139	137	for (unsigned int i = 0; i < pScene->mNumMaterials;++i)
140	138	{
141		// if the material is not referenced ... remove it
142		if (!abReferenced[i]) {
143		++unreferenced;
	139	// No mesh is referencing this material, remove it.
	140	if (!abReferenced[i]) {
	141	++unreferencedRemoved;
	142	delete pScene->mMaterials[i];
144	143	continue;
145	144	}
146	145
	146	// Check all previously mapped materials for a matching hash.
	147	// On a match we can delete this material and just make it ref to the same index.
147	148	uint32_t me = aiHashes[i] = ComputeMaterialHash(pScene->mMaterials[i]);
148	149	for (unsigned int a = 0; a < i;++a)
149	150	{
150	151	if (abReferenced[a] && me == aiHashes[a]) {
151		++iCnt;
	152	++redundantRemoved;
152	153	me = 0;
153	154	aiMappingTable[i] = aiMappingTable[a];
154	155	delete pScene->mMaterials[i];
155	156	break;
156	157	}
157	158	}
	159	// This is a new material that is referenced, add to the map.
158	160	if (me) {
159	161	aiMappingTable[i] = iNewNum++;
160	162	}
161	163	}
162		if (iCnt) {
163		// build an output material list
	164	// If the new material count differs from the original,
	165	// we need to rebuild the material list and remap mesh material indexes.
	166	if (iNewNum != pScene->mNumMaterials) {
164	167	aiMaterial** ppcMaterials = new aiMaterial*[iNewNum];
165	168	::memset(ppcMaterials,0,sizeof(void)iNewNum);
166	169	for (unsigned int p = 0; p < pScene->mNumMaterials;++p)
167	170	{
168	171	// if the material is not referenced ... remove it
169		if (!abReferenced[p])
	172	if (!abReferenced[p]) {
170	173	continue;
	174	}
171	175
172	176	// generate new names for all modified materials
173	177	const unsigned int idx = aiMappingTable[p];

177	181	sz.length = ::sprintf(sz.data,"JoinedMaterial_#%i",p);
178	182	((aiMaterial*)ppcMaterials[idx])->AddProperty(&sz,AI_MATKEY_NAME);
179	183	}
180		else ppcMaterials[idx] = pScene->mMaterials[p];
	184	else
	185	ppcMaterials[idx] = pScene->mMaterials[p];
181	186	}
182	187	// update all material indices
183		for (unsigned int p = 0; p < pScene->mNumMeshes;++p) {
	188	for (unsigned int p = 0; p < pScene->mNumMeshes;++p) {
184	189	aiMesh* mesh = pScene->mMeshes[p];
185	190	mesh->mMaterialIndex = aiMappingTable[mesh->mMaterialIndex];
186	191	}

193	198	delete[] aiHashes;
194	199	delete[] aiMappingTable;
195	200	}
196		if (!iCnt)DefaultLogger::get()->debug("RemoveRedundantMatsProcess finished ");
	201	if (redundantRemoved == 0 && unreferencedRemoved == 0)
	202	{
	203	DefaultLogger::get()->debug("RemoveRedundantMatsProcess finished ");
	204	}
197	205	else
198	206	{
199	207	char szBuffer[128]; // should be sufficiently large
200		::sprintf(szBuffer,"RemoveRedundantMatsProcess finished. %i redundant and %i unused materials",
201		iCnt,unreferenced);
	208	::sprintf(szBuffer,"RemoveRedundantMatsProcess finished. Removed %i redundant and %i unused materials.",
	209	redundantRemoved,unreferencedRemoved);
202	210	DefaultLogger::get()->info(szBuffer);
203	211	}
204	212	}

-3

code/RemoveRedundantMaterials.h less more

50	50	namespace Assimp {
51	51
52	52	// ---------------------------------------------------------------------------
53		/** RemoveRedundantMatsProcess: Postprocessing steo to remove redundant
	53	/** RemoveRedundantMatsProcess: Post-processing step to remove redundant
54	54	* materials from the imported scene.
55	55	*/
56		class RemoveRedundantMatsProcess : public BaseProcess
	56	class ASSIMP_API RemoveRedundantMatsProcess : public BaseProcess
57	57	{
58	58	public:
	59	/// The default class constructor.
	60	RemoveRedundantMatsProcess();
59	61
60		RemoveRedundantMatsProcess();
	62	/// The class destructor.
61	63	~RemoveRedundantMatsProcess();
62	64
63	65	public:

-4

code/RemoveVCProcess.h less more

45	45	#include "../include/assimp/mesh.h"
46	46
47	47	class RemoveVCProcessTest;
48		namespace Assimp {
	48
	49	namespace Assimp {
49	50
50	51	// ---------------------------------------------------------------------------
51	52	/** RemoveVCProcess: Class to exclude specific parts of the data structure
52	53	* from further processing by removing them,
53	54	*/
54		class RemoveVCProcess : public BaseProcess
	55	class ASSIMP_API RemoveVCProcess : public BaseProcess
55	56	{
56	57	public:
	58	/// The default class constructor.
	59	RemoveVCProcess();
57	60
58		RemoveVCProcess();
	61	/// The class destructor.
59	62	~RemoveVCProcess();
60	63
61	64	public:

84	87	// -------------------------------------------------------------------
85	88	/** Manually setup the configuration flags for the step
86	89	*
87		* @param Bitwise combintion of the #aiComponent enumerated values.
	90	* @param Bitwise combination of the #aiComponent enumerated values.
88	91	*/
89	92	void SetDeleteFlags(unsigned int f)
90	93	{

112	115	aiScene* mScene;
113	116	};
114	117
	118	// ---------------------------------------------------------------------------
	119
115	120	} // end of namespace Assimp
116	121
117	122	#endif // !!AI_REMOVEVCPROCESS_H_INCLUDED

-6

code/SMDLoader.cpp less more

683	683	const char* szCurrent = mBuffer;
684	684
685	685	// read line per line ...
686		while (true)
	686	for ( ;; )
687	687	{
688	688	if(!SkipSpacesAndLineEnd(szCurrent,&szCurrent)) break;
689	689

749	749	void SMDImporter::ParseNodesSection(const char* szCurrent,
750	750	const char** szCurrentOut)
751	751	{
752		while (true)
	752	for ( ;; )
753	753	{
754	754	// "end\n" - Ends the nodes section
755	755	if (0 == ASSIMP_strincmp(szCurrent,"end",3) &&

771	771	{
772	772	// Parse a triangle, parse another triangle, parse the next triangle ...
773	773	// and so on until we reach a token that looks quite similar to "end"
774		while (true)
	774	for ( ;; )
775	775	{
776	776	if(!SkipSpacesAndLineEnd(szCurrent,&szCurrent)) break;
777	777

789	789	const char** szCurrentOut)
790	790	{
791	791	unsigned int iCurIndex = 0;
792		while (true)
	792	for ( ;; )
793	793	{
794	794	if(!SkipSpacesAndLineEnd(szCurrent,&szCurrent)) break;
795	795

832	832	const char** szCurrentOut)
833	833	{
834	834	int iTime = 0;
835		while (true)
	835	for ( ;; )
836	836	{
837	837	if(!SkipSpacesAndLineEnd(szCurrent,&szCurrent)) break;
838	838

886	886	else ++szCurrent;
887	887
888	888	const char* szEnd = szCurrent;
889		while (true)
	889	for ( ;; )
890	890	{
891	891	if (bQuota && '\"' == *szEnd)
892	892	{

-2

code/STEPFile.h less more

194	194	// conversion support.
195	195	template <typename T>
196	196	const T& ResolveSelect(const DB& db) const {
197		return Couple<T>(db).MustGetObject(To<EXPRESS::ENTITY>())->To<T>();
	197	return Couple<T>(db).MustGetObject(To<EXPRESS::ENTITY>())->template To<T>();
198	198	}
199	199
200	200	template <typename T>
201	201	const T* ResolveSelectPtr(const DB& db) const {
202	202	const EXPRESS::ENTITY* e = ToPtr<EXPRESS::ENTITY>();
203		return e?Couple<T>(db).MustGetObject(e)->ToPtr<T>():(const T)0;
	203	return e?Couple<T>(db).MustGetObject(e)->template ToPtr<T>():(const T)0;
204	204	}
205	205
206	206	public:

+433

-0

code/STEPFileEncoding.cpp less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	/** @file STEPFileEncoding.cpp
	41	* @brief STEP character handling, string unescaping
	42	*/
	43	#include "AssimpPCH.h"
	44	#include "STEPFileEncoding.h"
	45	#include "fast_atof.h"
	46
	47	#include "../contrib/ConvertUTF/ConvertUTF.h"
	48
	49	using namespace Assimp;
	50
	51	// roman1 to utf16 table
	52	static const UTF16 mac_codetable[] = {
	53	// 0x20 unassig./nonprint. slots
	54	0x0020 ,
	55	0x0021 ,
	56	0x0022 ,
	57	0x0023 ,
	58	0x0024 ,
	59	0x0025 ,
	60	0x0026 ,
	61	0x0027 ,
	62	0x0028 ,
	63	0x0029 ,
	64	0x002A ,
	65	0x002B ,
	66	0x002C ,
	67	0x002D ,
	68	0x002E ,
	69	0x002F ,
	70	0x0030 ,
	71	0x0031 ,
	72	0x0032 ,
	73	0x0033 ,
	74	0x0034 ,
	75	0x0035 ,
	76	0x0036 ,
	77	0x0037 ,
	78	0x0038 ,
	79	0x0039 ,
	80	0x003A ,
	81	0x003B ,
	82	0x003C ,
	83	0x003D ,
	84	0x003E ,
	85	0x003F ,
	86	0x0040 ,
	87	0x0041 ,
	88	0x0042 ,
	89	0x0043 ,
	90	0x0044 ,
	91	0x0045 ,
	92	0x0046 ,
	93	0x0047 ,
	94	0x0048 ,
	95	0x0049 ,
	96	0x004A ,
	97	0x004B ,
	98	0x004C ,
	99	0x004D ,
	100	0x004E ,
	101	0x004F ,
	102	0x0050 ,
	103	0x0051 ,
	104	0x0052 ,
	105	0x0053 ,
	106	0x0054 ,
	107	0x0055 ,
	108	0x0056 ,
	109	0x0057 ,
	110	0x0058 ,
	111	0x0059 ,
	112	0x005A ,
	113	0x005B ,
	114	0x005C ,
	115	0x005D ,
	116	0x005E ,
	117	0x005F ,
	118	0x0060 ,
	119	0x0061 ,
	120	0x0062 ,
	121	0x0063 ,
	122	0x0064 ,
	123	0x0065 ,
	124	0x0066 ,
	125	0x0067 ,
	126	0x0068 ,
	127	0x0069 ,
	128	0x006A ,
	129	0x006B ,
	130	0x006C ,
	131	0x006D ,
	132	0x006E ,
	133	0x006F ,
	134	0x0070 ,
	135	0x0071 ,
	136	0x0072 ,
	137	0x0073 ,
	138	0x0074 ,
	139	0x0075 ,
	140	0x0076 ,
	141	0x0077 ,
	142	0x0078 ,
	143	0x0079 ,
	144	0x007A ,
	145	0x007B ,
	146	0x007C ,
	147	0x007D ,
	148	0x007E ,
	149	0x0000 , // unassig.
	150	0x00C4 ,
	151	0x00C5 ,
	152	0x00C7 ,
	153	0x00C9 ,
	154	0x00D1 ,
	155	0x00D6 ,
	156	0x00DC ,
	157	0x00E1 ,
	158	0x00E0 ,
	159	0x00E2 ,
	160	0x00E4 ,
	161	0x00E3 ,
	162	0x00E5 ,
	163	0x00E7 ,
	164	0x00E9 ,
	165	0x00E8 ,
	166	0x00EA ,
	167	0x00EB ,
	168	0x00ED ,
	169	0x00EC ,
	170	0x00EE ,
	171	0x00EF ,
	172	0x00F1 ,
	173	0x00F3 ,
	174	0x00F2 ,
	175	0x00F4 ,
	176	0x00F6 ,
	177	0x00F5 ,
	178	0x00FA ,
	179	0x00F9 ,
	180	0x00FB ,
	181	0x00FC ,
	182	0x2020 ,
	183	0x00B0 ,
	184	0x00A2 ,
	185	0x00A3 ,
	186	0x00A7 ,
	187	0x2022 ,
	188	0x00B6 ,
	189	0x00DF ,
	190	0x00AE ,
	191	0x00A9 ,
	192	0x2122 ,
	193	0x00B4 ,
	194	0x00A8 ,
	195	0x2260 ,
	196	0x00C6 ,
	197	0x00D8 ,
	198	0x221E ,
	199	0x00B1 ,
	200	0x2264 ,
	201	0x2265 ,
	202	0x00A5 ,
	203	0x00B5 ,
	204	0x2202 ,
	205	0x2211 ,
	206	0x220F ,
	207	0x03C0 ,
	208	0x222B ,
	209	0x00AA ,
	210	0x00BA ,
	211	0x03A9 ,
	212	0x00E6 ,
	213	0x00F8 ,
	214	0x00BF ,
	215	0x00A1 ,
	216	0x00AC ,
	217	0x221A ,
	218	0x0192 ,
	219	0x2248 ,
	220	0x2206 ,
	221	0x00AB ,
	222	0x00BB ,
	223	0x2026 ,
	224	0x00A0 ,
	225	0x00C0 ,
	226	0x00C3 ,
	227	0x00D5 ,
	228	0x0152 ,
	229	0x0153 ,
	230	0x2013 ,
	231	0x2014 ,
	232	0x201C ,
	233	0x201D ,
	234	0x2018 ,
	235	0x2019 ,
	236	0x00F7 ,
	237	0x25CA ,
	238	0x00FF ,
	239	0x0178 ,
	240	0x2044 ,
	241	0x20AC ,
	242	0x2039 ,
	243	0x203A ,
	244	0xFB01 ,
	245	0xFB02 ,
	246	0x2021 ,
	247	0x00B7 ,
	248	0x201A ,
	249	0x201E ,
	250	0x2030 ,
	251	0x00C2 ,
	252	0x00CA ,
	253	0x00C1 ,
	254	0x00CB ,
	255	0x00C8 ,
	256	0x00CD ,
	257	0x00CE ,
	258	0x00CF ,
	259	0x00CC ,
	260	0x00D3 ,
	261	0x00D4 ,
	262	0xF8FF ,
	263	0x00D2 ,
	264	0x00DA ,
	265	0x00DB ,
	266	0x00D9 ,
	267	0x0131 ,
	268	0x02C6 ,
	269	0x02DC ,
	270	0x00AF ,
	271	0x02D8 ,
	272	0x02D9 ,
	273	0x02DA ,
	274	0x00B8 ,
	275	0x02DD ,
	276	0x02DB ,
	277	0x02C7
	278	};
	279
	280	// ------------------------------------------------------------------------------------------------
	281	bool STEP::StringToUTF8(std::string& s)
	282	{
	283	// very basic handling for escaped string sequences
	284	// http://doc.spatial.com/index.php?title=InterOp:Connect/STEP&redirect=no
	285
	286	for (size_t i = 0; i < s.size(); ) {
	287	if (s[i] == '\\') {
	288	// \S\X - cp1252 (X is the character remapped to [0,127])
	289	if (i+3 < s.size() && s[i+1] == 'S' && s[i+2] == '\\') {
	290	// http://stackoverflow.com/questions/5586214/how-to-convert-char-from-iso-8859-1-to-utf-8-in-c-multiplatformly
	291	ai_assert((uint8_t)s[i+3] < 0x80);
	292	const uint8_t ch = s[i+3] + 0x80;
	293
	294	s[i] = 0xc0 \| (ch & 0xc0) >> 6;
	295	s[i+1] = 0x80 \| (ch & 0x3f);
	296
	297	s.erase(i + 2,2);
	298	++i;
	299	}
	300	// \X\xx - mac/roman (xx is a hex sequence)
	301	else if (i+4 < s.size() && s[i+1] == 'X' && s[i+2] == '\\') {
	302
	303	const uint8_t macval = HexOctetToDecimal(s.c_str() + i + 3);
	304	if(macval < 0x20) {
	305	return false;
	306	}
	307
	308	ai_assert(sizeof(mac_codetable) / sizeof(mac_codetable[0]) == 0x100-0x20);
	309
	310	const UTF32 unival = mac_codetable[macval - 0x20], *univalp = &unival;
	311
	312	UTF8 temp[5], *tempp = temp;
	313	ai_assert(sizeof(UTF8) == 1);
	314
	315	if(ConvertUTF32toUTF8(&univalp, univalp+1, &tempp, tempp+sizeof(temp), lenientConversion) != conversionOK) {
	316	return false;
	317	}
	318
	319	const size_t outcount = static_cast<size_t>(tempp-temp);
	320
	321	s.erase(i,5);
	322	s.insert(i, reinterpret_cast<char*>(temp), outcount);
	323	i += outcount;
	324	}
	325	// \Xn\ .. \X0\ - various unicode encodings (n=2: utf16; n=4: utf32)
	326	else if (i+3 < s.size() && s[i+1] == 'X' && s[i+2] >= '0' && s[i+2] <= '9') {
	327	switch(s[i+2]) {
	328	// utf16
	329	case '2':
	330	// utf32
	331	case '4':
	332	if (s[i+3] == '\\') {
	333	const size_t basei = i+4;
	334	size_t j = basei, jend = s.size()-4;
	335
	336	for (; j < jend; ++j) {
	337	if (s[j] == '\\' && s[j] == 'X' && s[j] == '0' && s[j] == '\\') {
	338	break;
	339	}
	340	}
	341	if (j == jend) {
	342	return false;
	343	}
	344
	345	if (j == basei) {
	346	s.erase(i,8);
	347	continue;
	348	}
	349
	350	if (s[i+2] == '2') {
	351	if (((j - basei) % 4) != 0) {
	352	return false;
	353	}
	354
	355	const size_t count = (j-basei)/4;
	356	boost::scoped_array<UTF16> src(new UTF16[count]);
	357
	358	const char* cur = s.c_str() + basei;
	359	for (size_t k = 0; k < count; ++k, cur += 4) {
	360	src[k] = (static_cast<UTF16>(HexOctetToDecimal(cur)) << 8u) \|
	361	static_cast<UTF16>(HexOctetToDecimal(cur+2));
	362	}
	363
	364	const size_t dcount = count * 3; // this is enough to hold all possible outputs
	365	boost::scoped_array<UTF8> dest(new UTF8[dcount]);
	366
	367	const UTF16* srct = src.get();
	368	UTF8* destt = dest.get();
	369	if(ConvertUTF16toUTF8(&srct, srct+count, &destt, destt+dcount, lenientConversion) != conversionOK) {
	370	return false;
	371	}
	372
	373	const size_t outcount = static_cast<size_t>(destt-dest.get());
	374
	375	s.erase(i,(j+4-i));
	376
	377	ai_assert(sizeof(UTF8) == 1);
	378	s.insert(i, reinterpret_cast<char*>(dest.get()), outcount);
	379
	380	i += outcount;
	381	continue;
	382	}
	383	else if (s[i+2] == '4') {
	384	if (((j - basei) % 8) != 0) {
	385	return false;
	386	}
	387
	388	const size_t count = (j-basei)/8;
	389	boost::scoped_array<UTF32> src(new UTF32[count]);
	390
	391	const char* cur = s.c_str() + basei;
	392	for (size_t k = 0; k < count; ++k, cur += 8) {
	393	src[k] = (static_cast<UTF32>(HexOctetToDecimal(cur )) << 24u) \|
	394	(static_cast<UTF32>(HexOctetToDecimal(cur+2)) << 16u) \|
	395	(static_cast<UTF32>(HexOctetToDecimal(cur+4)) << 8u) \|
	396	(static_cast<UTF32>(HexOctetToDecimal(cur+6)));
	397	}
	398
	399	const size_t dcount = count * 5; // this is enough to hold all possible outputs
	400	boost::scoped_array<UTF8> dest(new UTF8[dcount]);
	401
	402	const UTF32* srct = src.get();
	403	UTF8* destt = dest.get();
	404	if(ConvertUTF32toUTF8(&srct, srct+count, &destt, destt+dcount, lenientConversion) != conversionOK) {
	405	return false;
	406	}
	407
	408	const size_t outcount = static_cast<size_t>(destt-dest.get());
	409
	410	s.erase(i,(j+4-i));
	411
	412	ai_assert(sizeof(UTF8) == 1);
	413	s.insert(i, reinterpret_cast<char*>(dest.get()), outcount);
	414
	415	i += outcount;
	416	continue;
	417	}
	418	}
	419
	420	break;
	421
	422	// TODO: other encoding patterns?
	423
	424	default:
	425	return false;
	426	}
	427	}
	428	}
	429	++i;
	430	}
	431	return true;
	432	}

+63

-0

code/STEPFileEncoding.h less more

	0	/*
	1	Open Asset Import Library (assimp)
	2	----------------------------------------------------------------------
	3
	4	Copyright (c) 2006-2012, assimp team
	5	All rights reserved.
	6
	7	Redistribution and use of this software in source and binary forms,
	8	with or without modification, are permitted provided that the
	9	following conditions are met:
	10
	11	* Redistributions of source code must retain the above
	12	copyright notice, this list of conditions and the
	13	following disclaimer.
	14
	15	* Redistributions in binary form must reproduce the above
	16	copyright notice, this list of conditions and the
	17	following disclaimer in the documentation and/or other
	18	materials provided with the distribution.
	19
	20	* Neither the name of the assimp team, nor the names of its
	21	contributors may be used to endorse or promote products
	22	derived from this software without specific prior
	23	written permission of the assimp team.
	24
	25	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	26	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	28	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	29	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	30	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	31	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	32	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	33	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	34	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	35	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	36
	37	----------------------------------------------------------------------
	38	*/
	39
	40	#ifndef INCLUDED_AI_STEPFILEENCODING_H
	41	#define INCLUDED_AI_STEPFILEENCODING_H
	42
	43	#include <string>
	44
	45	namespace Assimp {
	46	namespace STEP {
	47
	48
	49	// --------------------------------------------------------------------------
	50	// Convert an ASCII STEP identifier with possibly escaped character
	51	// sequences using foreign encodings to plain UTF8.
	52	//
	53	// Return false if an error occurs, s may or may not be modified in
	54	// this case and could still contain escape sequences (even partly
	55	// escaped ones).
	56	bool StringToUTF8(std::string& s);
	57
	58
	59	} // ! STEP
	60	} // ! Assimp
	61
	62	#endif

+100

-25

code/STEPFileReader.cpp less more

43	43	*/
44	44	#include "AssimpPCH.h"
45	45	#include "STEPFileReader.h"
	46	#include "STEPFileEncoding.h"
46	47	#include "TinyFormatter.h"
47	48	#include "fast_atof.h"
	49
48	50
49	51	using namespace Assimp;
50	52	namespace EXPRESS = STEP::EXPRESS;

159	161	}
160	162
161	163
	164	namespace {
	165
	166	// ------------------------------------------------------------------------------------------------
	167	// check whether the given line contains an entity definition (i.e. starts with "#<number>=")
	168	bool IsEntityDef(const std::string& snext)
	169	{
	170	if (snext[0] == '#') {
	171	// it is only a new entity if it has a '=' after the
	172	// entity ID.
	173	for(std::string::const_iterator it = snext.begin()+1; it != snext.end(); ++it) {
	174	if (*it == '=') {
	175	return true;
	176	}
	177	if ((it < '0' \|\| it > '9') && *it != ' ') {
	178	break;
	179	}
	180	}
	181	}
	182	return false;
	183	}
	184
	185	}
	186
	187
162	188	// ------------------------------------------------------------------------------------------------
163	189	void STEP::ReadFile(DB& db,const EXPRESS::ConversionSchema& scheme,
164	190	const char* const* types_to_track, size_t len,

170	196
171	197	const DB::ObjectMap& map = db.GetObjects();
172	198	LineSplitter& splitter = db.GetSplitter();
173		for(; splitter; ++splitter) {
174		const std::string& s = *splitter;
	199
	200	while (splitter) {
	201	bool has_next = false;
	202	std::string s = *splitter;
175	203	if (s == "ENDSEC;") {
176	204	break;
177	205	}
	206	s.erase(std::remove(s.begin(), s.end(), ' '), s.end());
178	207
179	208	// want one-based line numbers for human readers, so +1
180	209	const uint64_t line = splitter.get_index()+1;
181
182	210	// LineSplitter already ignores empty lines
183	211	ai_assert(s.length());
184	212	if (s[0] != '#') {
185	213	DefaultLogger::get()->warn(AddLineNumber("expected token \'#\'",line));
	214	++splitter;
186	215	continue;
187	216	}
188
189	217	// ---
190	218	// extract id, entity class name and argument string,
191	219	// but don't create the actual object yet.
192	220	// ---
193
194	221	const std::string::size_type n0 = s.find_first_of('=');
195	222	if (n0 == std::string::npos) {
196	223	DefaultLogger::get()->warn(AddLineNumber("expected token \'=\'",line));
	224	++splitter;
197	225	continue;
198	226	}
199	227
200	228	const uint64_t id = strtoul10_64(s.substr(1,n0-1).c_str());
201	229	if (!id) {
202	230	DefaultLogger::get()->warn(AddLineNumber("expected positive, numeric entity id",line));
	231	++splitter;
203	232	continue;
204	233	}
205
206		const std::string::size_type n1 = s.find_first_of('(',n0);
	234	std::string::size_type n1 = s.find_first_of('(',n0);
207	235	if (n1 == std::string::npos) {
208		DefaultLogger::get()->warn(AddLineNumber("expected token \'(\'",line));
209		continue;
210		}
211
212		const std::string::size_type n2 = s.find_last_of(')');
213		if (n2 == std::string::npos \|\| n2 < n1) {
214		DefaultLogger::get()->warn(AddLineNumber("expected token \')\'",line));
215		continue;
	236	has_next = true;
	237	bool ok = false;
	238	for( ++splitter; splitter; ++splitter) {
	239	const std::string& snext = *splitter;
	240	if (snext.empty()) {
	241	continue;
	242	}
	243
	244	// the next line doesn't start an entity, so maybe it is
	245	// just a continuation for this line, keep going
	246	if (!IsEntityDef(snext)) {
	247	s.append(snext);
	248	n1 = s.find_first_of('(',n0);
	249	ok = (n1 != std::string::npos);
	250	}
	251	else {
	252	break;
	253	}
	254	}
	255
	256	if(!ok) {
	257	DefaultLogger::get()->warn(AddLineNumber("expected token \'(\'",line));
	258	continue;
	259	}
	260	}
	261
	262	std::string::size_type n2 = s.find_last_of(')');
	263	if (n2 == std::string::npos \|\| n2 < n1 \|\| n2 == s.length() - 1 \|\| s[n2 + 1] != ';') {
	264
	265	has_next = true;
	266	bool ok = false;
	267	for( ++splitter; splitter; ++splitter) {
	268	const std::string& snext = *splitter;
	269	if (snext.empty()) {
	270	continue;
	271	}
	272	// the next line doesn't start an entity, so maybe it is
	273	// just a continuation for this line, keep going
	274	if (!IsEntityDef(snext)) {
	275	s.append(snext);
	276	n2 = s.find_last_of(')');
	277	ok = !(n2 == std::string::npos \|\| n2 < n1 \|\| n2 == s.length() - 1 \|\| s[n2 + 1] != ';');
	278	}
	279	else {
	280	break;
	281	}
	282	}
	283	if(!ok) {
	284	DefaultLogger::get()->warn(AddLineNumber("expected token \')\'",line));
	285	continue;
	286	}
216	287	}
217	288
218	289	if (map.find(id) != map.end()) {

221	292
222	293	std::string::size_type ns = n0;
223	294	do ++ns; while( IsSpace(s.at(ns)));
224
225	295	std::string::size_type ne = n1;
226	296	do --ne; while( IsSpace(s.at(ne)));
227
228	297	std::string type = s.substr(ns,ne-ns+1);
229	298	std::transform( type.begin(), type.end(), type.begin(), &Assimp::ToLower<char> );
230
231	299	const char* sz = scheme.GetStaticStringForToken(type);
232	300	if(sz) {
233
234	301	const std::string::size_type len = n2-n1+1;
235	302	char* const copysz = new char[len+1];
236	303	std::copy(s.c_str()+n1,s.c_str()+n2+1,copysz);
237	304	copysz[len] = '\0';
238
239	305	db.InternInsert(new LazyObject(db,id,line,sz,copysz));
	306	}
	307	if(!has_next) {
	308	++splitter;
240	309	}
241	310	}
242	311

244	313	DefaultLogger::get()->warn("STEP: ignoring unexpected EOF");
245	314	}
246	315
247		if ( !DefaultLogger::isNullLogger() ){
	316	if ( !DefaultLogger::isNullLogger()){
248	317	DefaultLogger::get()->debug((Formatter::format(),"STEP: got ",map.size()," object records with ",
249	318	db.GetRefs().size()," inverse index entries"));
250	319	}
251	320	}
252	321
253
254	322	// ------------------------------------------------------------------------------------------------
255	323	boost::shared_ptr<const EXPRESS::DataType> EXPRESS::DataType::Parse(const char& inout,uint64_t line, const EXPRESS::ConversionSchema schema /= NULL/)
256	324	{
257	325	const char* cur = inout;
258	326	SkipSpaces(&cur);
259
260	327	if (cur == ',' \|\| IsSpaceOrNewLine(cur)) {
261	328	throw STEP::SyntaxError("unexpected token, expected parameter",line);
262	329	}

338	405
339	406	inout = cur + 1;
340	407
341		return boost::make_shared<EXPRESS::STRING>(std::string(start, static_cast<size_t>(cur - start)));
	408	// assimp is supposed to output UTF8 strings, so we have to deal
	409	// with foreign encodings.
	410	std::string stemp = std::string(start, static_cast<size_t>(cur - start));
	411	if(!StringToUTF8(stemp)) {
	412	// TODO: route this to a correct logger with line numbers etc., better error messages
	413	DefaultLogger::get()->error("an error occurred reading escape sequences in ASCII text");
	414	}
	415
	416	return boost::make_shared<EXPRESS::STRING>(stemp);
342	417	}
343	418	else if (*cur == '\"' ) {
344	419	throw STEP::SyntaxError("binary data not supported yet",line);

435	510	--skip_depth;
436	511	}
437	512
438		if (skip_depth == 1 && *a=='#') {
	513	if (skip_depth >= 1 && *a=='#') {
439	514	const char* tmp;
440	515	const int64_t num = static_cast<int64_t>( strtoul10_64(a+1,&tmp) );
441	516	db.MarkRef(num,id);

-4

code/STEPFileReader.h less more

46	46	namespace STEP {
47	47
48	48	// ### Parsing a STEP file is a twofold procedure ###
49
50	49	// --------------------------------------------------------------------------
51	50	// 1) read file header and return to caller, who checks if the
52	51	// file is of a supported schema ..
53	52	DB* ReadFileHeader(boost::shared_ptr<IOStream> stream);
54
55	53	// --------------------------------------------------------------------------
56	54	// 2) read the actual file contents using a user-supplied set of
57	55	// conversion functions to interpret the data.

59	57	template <size_t N, size_t N2> inline void ReadFile(DB& db,const EXPRESS::ConversionSchema& scheme, const char* const (&arr)[N], const char* const (&arr2)[N2]) {
60	58	return ReadFile(db,scheme,arr,N,arr2,N2);
61	59	}
62
63
64	60	} // ! STEP
65	61	} // ! Assimp
66	62

+68

-7

code/STLExporter.cpp less more

56	56
57	57	// we're still here - export successfully completed. Write the file.
58	58	boost::scoped_ptr<IOStream> outfile (pIOSystem->Open(pFile,"wt"));
	59	if(outfile == NULL) {
	60	throw DeadlyExportError("could not open output .stl file: " + std::string(pFile));
	61	}
	62
	63	outfile->Write( exporter.mOutput.str().c_str(), static_cast<size_t>(exporter.mOutput.tellp()),1);
	64	}
	65	void ExportSceneSTLBinary(const char* pFile,IOSystem* pIOSystem, const aiScene* pScene)
	66	{
	67	// invoke the exporter
	68	STLExporter exporter(pFile, pScene, true);
	69
	70	// we're still here - export successfully completed. Write the file.
	71	boost::scoped_ptr<IOStream> outfile (pIOSystem->Open(pFile,"wt"));
	72	if(outfile == NULL) {
	73	throw DeadlyExportError("could not open output .stl file: " + std::string(pFile));
	74	}
	75
59	76	outfile->Write( exporter.mOutput.str().c_str(), static_cast<size_t>(exporter.mOutput.tellp()),1);
60	77	}
61	78

63	80
64	81
65	82	// ------------------------------------------------------------------------------------------------
66		STLExporter :: STLExporter(const char* _filename, const aiScene* pScene)
	83	STLExporter :: STLExporter(const char* _filename, const aiScene* pScene, bool binary)
67	84	: filename(_filename)
68	85	, pScene(pScene)
69	86	, endl("\n")

71	88	// make sure that all formatting happens using the standard, C locale and not the user's current locale
72	89	const std::locale& l = std::locale("C");
73	90	mOutput.imbue(l);
74
75		const std::string& name = "AssimpScene";
	91	if (binary) {
	92	char buf[80] = {0} ;
	93	buf[0] = 'A'; buf[1] = 's'; buf[2] = 's'; buf[3] = 'i'; buf[4] = 'm'; buf[5] = 'p';
	94	buf[6] = 'S'; buf[7] = 'c'; buf[8] = 'e'; buf[9] = 'n'; buf[10] = 'e';
	95	mOutput.write(buf, 80);
	96	unsigned int meshnum = 0;
	97	for(unsigned int i = 0; i < pScene->mNumMeshes; ++i) {
	98	for (unsigned int j = 0; j < pScene->mMeshes[i]->mNumFaces; ++j) {
	99	meshnum++;
	100	}
	101	}
	102	AI_SWAP4(meshnum);
	103	mOutput.write((char *)&meshnum, 4);
	104	for(unsigned int i = 0; i < pScene->mNumMeshes; ++i) {
	105	WriteMeshBinary(pScene->mMeshes[i]);
	106	}
	107	} else {
	108	const std::string& name = "AssimpScene";
76	109
77		mOutput << "solid " << name << endl;
78		for(unsigned int i = 0; i < pScene->mNumMeshes; ++i) {
79		WriteMesh(pScene->mMeshes[i]);
	110	mOutput << "solid " << name << endl;
	111	for(unsigned int i = 0; i < pScene->mNumMeshes; ++i) {
	112	WriteMesh(pScene->mMeshes[i]);
	113	}
	114	mOutput << "endsolid " << name << endl;
80	115	}
81		mOutput << "endsolid " << name << endl;
82	116	}
83	117
84	118	// ------------------------------------------------------------------------------------------------

108	142	}
109	143	}
110	144
	145	void STLExporter :: WriteMeshBinary(const aiMesh* m)
	146	{
	147	for (unsigned int i = 0; i < m->mNumFaces; ++i) {
	148	const aiFace& f = m->mFaces[i];
	149	// we need per-face normals. We specified aiProcess_GenNormals as pre-requisite for this exporter,
	150	// but nonetheless we have to expect per-vertex normals.
	151	aiVector3D nor;
	152	if (m->mNormals) {
	153	for(unsigned int a = 0; a < f.mNumIndices; ++a) {
	154	nor += m->mNormals[f.mIndices[a]];
	155	}
	156	nor.Normalize();
	157	}
	158	float nx = nor.x, ny = nor.y, nz = nor.z;
	159	AI_SWAP4(nx); AI_SWAP4(ny); AI_SWAP4(nz);
	160	mOutput.write((char )&nx, 4); mOutput.write((char )&ny, 4); mOutput.write((char *)&nz, 4);
	161	for(unsigned int a = 0; a < f.mNumIndices; ++a) {
	162	const aiVector3D& v = m->mVertices[f.mIndices[a]];
	163	float vx = v.x, vy = v.y, vz = v.z;
	164	AI_SWAP4(vx); AI_SWAP4(vy); AI_SWAP4(vz);
	165	mOutput.write((char )&vx, 4); mOutput.write((char )&vy, 4); mOutput.write((char *)&vz, 4);
	166	}
	167	char dummy[2] = {0};
	168	mOutput.write(dummy, 2);
	169	}
	170	}
	171
111	172	#endif

-1

code/STLExporter.h less more

58	58	{
59	59	public:
60	60	/// Constructor for a specific scene to export
61		STLExporter(const char* filename, const aiScene* pScene);
	61	STLExporter(const char* filename, const aiScene* pScene, bool binary = false);
62	62
63	63	public:
64	64

68	68	private:
69	69
70	70	void WriteMesh(const aiMesh* m);
	71	void WriteMeshBinary(const aiMesh* m);
71	72
72	73	private:
73	74

+53

-13

code/STLLoader.cpp less more

50	50
51	51	using namespace Assimp;
52	52
	53	namespace {
53	54	static const aiImporterDesc desc = {
54	55	"Stereolithography (STL) Importer",
55	56	"",

63	64	"stl"
64	65	};
65	66
	67	// A valid binary STL buffer should consist of the following elements, in order:
	68	// 1) 80 byte header
	69	// 2) 4 byte face count
	70	// 3) 50 bytes per face
	71	bool IsBinarySTL(const char* buffer, unsigned int fileSize) {
	72	if (fileSize < 84)
	73	return false;
	74
	75	const uint32_t faceCount = reinterpret_cast<const uint32_t>(buffer + 80);
	76	const uint32_t expectedBinaryFileSize = faceCount * 50 + 84;
	77
	78	return expectedBinaryFileSize == fileSize;
	79	}
	80
	81	// An ascii STL buffer will begin with "solid NAME", where NAME is optional.
	82	// Note: The "solid NAME" check is necessary, but not sufficient, to determine
	83	// if the buffer is ASCII; a binary header could also begin with "solid NAME".
	84	bool IsAsciiSTL(const char* buffer, unsigned int fileSize) {
	85	if (IsBinarySTL(buffer, fileSize))
	86	return false;
	87
	88	const char* bufferEnd = buffer + fileSize;
	89
	90	if (!SkipSpaces(&buffer))
	91	return false;
	92
	93	if (buffer + 5 >= bufferEnd)
	94	return false;
	95
	96	return strncmp(buffer, "solid", 5) == 0;
	97	}
	98	} // namespace
	99
66	100	// ------------------------------------------------------------------------------------------------
67	101	// Constructor to be privately used by Importer
68	102	STLImporter::STLImporter()

118	152	this->pScene = pScene;
119	153	this->mBuffer = &mBuffer2[0];
120	154
121		// the default vertex color is white
122		clrColorDefault.r = clrColorDefault.g = clrColorDefault.b = clrColorDefault.a = 1.0f;
	155	// the default vertex color is light gray.
	156	clrColorDefault.r = clrColorDefault.g = clrColorDefault.b = clrColorDefault.a = 0.6f;
123	157
124	158	// allocate one mesh
125	159	pScene->mNumMeshes = 1;

135	169
136	170	bool bMatClr = false;
137	171
138		// check whether the file starts with 'solid' -
139		// in this case we can simply assume it IS a text file. finished.
140		if (!::strncmp(mBuffer,"solid",5)) {
	172	if (IsBinarySTL(mBuffer, fileSize)) {
	173	bMatClr = LoadBinaryFile();
	174	} else if (IsAsciiSTL(mBuffer, fileSize)) {
141	175	LoadASCIIFile();
142		}
143		else bMatClr = LoadBinaryFile();
	176	} else {
	177	throw DeadlyImportError( "Failed to determine STL storage representation for " + pFile + ".");
	178	}
144	179
145	180	// now copy faces
146	181	pMesh->mFaces = new aiFace[pMesh->mNumFaces];

153	188	}
154	189	}
155	190
156		// create a single default material - everything white, as we have vertex colors
	191	// create a single default material, using a light gray diffuse color for consistency with
	192	// other geometric types (e.g., PLY).
157	193	aiMaterial* pcMat = new aiMaterial();
158	194	aiString s;
159	195	s.Set(AI_DEFAULT_MATERIAL_NAME);
160	196	pcMat->AddProperty(&s, AI_MATKEY_NAME);
161	197
162		aiColor4D clrDiffuse(1.0f,1.0f,1.0f,1.0f);
	198	aiColor4D clrDiffuse(0.6f,0.6f,0.6f,1.0f);
163	199	if (bMatClr) {
164	200	clrDiffuse = clrColorDefault;
165	201	}

178	214	{
179	215	aiMesh* pMesh = pScene->mMeshes[0];
180	216
181		const char* sz = mBuffer + 5; // skip the "solid"
	217	const char* sz = mBuffer;
	218	SkipSpaces(&sz);
	219	ai_assert(!IsLineEnd(sz));
	220
	221	sz += 5; // skip the "solid"
182	222	SkipSpaces(&sz);
183	223	const char* szMe = sz;
184	224	while (!::IsSpaceOrNewLine(*sz)) {

202	242	pMesh->mNormals = new aiVector3D[pMesh->mNumVertices];
203	243
204	244	unsigned int curFace = 0, curVertex = 3;
205		while (true)
	245	for ( ;; )
206	246	{
207	247	// go to the next token
208	248	if(!SkipSpacesAndLineEnd(&sz))

381	421
382	422	DefaultLogger::get()->info("STL: Mesh has vertex colors");
383	423	}
384		aiColor4D* clr = &pMesh->mColors[0][pMesh->mNumFaces*3];
	424	aiColor4D* clr = &pMesh->mColors[0][i*3];
385	425	clr->a = 1.0f;
386		if (bIsMaterialise) // fuck, this is reversed
	426	if (bIsMaterialise) // this is reversed
387	427	{
388	428	clr->r = (color & 0x31u) / 31.0f;
389	429	clr->g = ((color & (0x31u<<5))>>5u) / 31.0f;

+57

-0

code/SceneCombiner.cpp less more

880	880	}
881	881
882	882	// ------------------------------------------------------------------------------------------------
	883	void SceneCombiner::MergeMaterials(aiMaterial** dest,
	884	std::vector<aiMaterial*>::const_iterator begin,
	885	std::vector<aiMaterial*>::const_iterator end)
	886	{
	887	ai_assert(NULL != dest);
	888
	889	if (begin == end) {
	890	*dest = NULL; // no materials ...
	891	return;
	892	}
	893
	894	// Allocate the output material
	895	aiMaterial* out = *dest = new aiMaterial();
	896
	897	// Get the maximal number of properties
	898	unsigned int size = 0;
	899	for (std::vector<aiMaterial*>::const_iterator it = begin; it != end; ++it) {
	900	size += (*it)->mNumProperties;
	901	}
	902
	903	out->Clear();
	904	delete[] out->mProperties;
	905
	906	out->mNumAllocated = size;
	907	out->mNumProperties = 0;
	908	out->mProperties = new aiMaterialProperty*[out->mNumAllocated];
	909
	910	for (std::vector<aiMaterial*>::const_iterator it = begin; it != end; ++it) {
	911	for(unsigned int i = 0; i < (*it)->mNumProperties; ++i) {
	912	aiMaterialProperty* sprop = (*it)->mProperties[i];
	913
	914	// Test if we already have a matching property
	915	const aiMaterialProperty* prop_exist;
	916	if(aiGetMaterialProperty(out, sprop->mKey.C_Str(), sprop->mType, sprop->mIndex, &prop_exist) != AI_SUCCESS) {
	917	// If not, we add it to the new material
	918	aiMaterialProperty* prop = out->mProperties[out->mNumProperties] = new aiMaterialProperty();
	919
	920	prop->mDataLength = sprop->mDataLength;
	921	prop->mData = new char[prop->mDataLength];
	922	::memcpy(prop->mData, sprop->mData, prop->mDataLength);
	923
	924	prop->mIndex = sprop->mIndex;
	925	prop->mSemantic = sprop->mSemantic;
	926	prop->mKey = sprop->mKey;
	927	prop->mType = sprop->mType;
	928
	929	out->mNumProperties++;
	930	}
	931	}
	932	}
	933	}
	934
	935	// ------------------------------------------------------------------------------------------------
883	936	template <typename Type>
884	937	inline void CopyPtrArray (Type*& dest, const Type const * src, unsigned int num)
885	938	{

1011	1064	ai_assert(NULL != _dest && NULL != src);
1012	1065
1013	1066	aiMaterial* dest = (aiMaterial) ( _dest = new aiMaterial() );
	1067
	1068	dest->Clear();
	1069	delete[] dest->mProperties;
	1070
1014	1071	dest->mNumAllocated = src->mNumAllocated;
1015	1072	dest->mNumProperties = src->mNumProperties;
1016	1073	dest->mProperties = new aiMaterialProperty* [dest->mNumAllocated];

+14

-0

code/SceneCombiner.h less more

247	247	static void MergeBones(aiMesh* out,std::vector<aiMesh*>::const_iterator it,
248	248	std::vector<aiMesh*>::const_iterator end);
249	249
	250	// -------------------------------------------------------------------
	251	/** Merges two or more materials
	252	*
	253	* The materials should be complementary as much as possible. In case
	254	* of a property present in different materials, the first occurence
	255	* is used.
	256	*
	257	* @param dest Destination material. Must be empty.
	258	* @param begin First material to be processed
	259	* @param end Points to the material after the last material to be processed
	260	*/
	261	static void MergeMaterials(aiMaterial** dest,
	262	std::vector<aiMaterial*>::const_iterator begin,
	263	std::vector<aiMaterial*>::const_iterator end);
250	264
251	265	// -------------------------------------------------------------------
252	266	/** Builds a list of uniquely named bones in a mesh list

-1

code/ScenePreprocessor.cpp less more

71	71	aiColor3D clr(0.6f,0.6f,0.6f);
72	72	helper->AddProperty(&clr,1,AI_MATKEY_COLOR_DIFFUSE);
73	73
74		// setup the default name to make this material identifyable
	74	// setup the default name to make this material identifiable
75	75	name.Set(AI_DEFAULT_MATERIAL_NAME);
76	76	helper->AddProperty(&name,AI_MATKEY_NAME);
77	77

-1

code/ScenePreprocessor.h less more

53	53	* importer, such as aiMesh::mPrimitiveTypes.
54	54	*/
55	55	// ----------------------------------------------------------------------------------
56		class ScenePreprocessor
	56	class ASSIMP_API ScenePreprocessor
57	57	{
58	58	// Make ourselves a friend of the corresponding test unit.
59	59	friend class ::ScenePreprocessorTest;

-0

code/ScenePrivate.h less more

52	52	ScenePrivateData()
53	53	: mOrigImporter()
54	54	, mPPStepsApplied()
	55	, mIsCopy()
55	56	{}
56	57
57	58	// Importer that originally loaded the scene though the C-API

60	61
61	62	// List of postprocessing steps already applied to the scene.
62	63	unsigned int mPPStepsApplied;
	64
	65	// true if the scene is a copy made with aiCopyScene()
	66	// or the corresponding C++ API. This means that user code
	67	// may have made modifications to it, so mPPStepsApplied
	68	// and mOrigImporter are no longer safe to rely on and only
	69	// serve informative purposes.
	70	bool mIsCopy;
63	71	};
64	72
65	73	// Access private data stored in the scene

-1

code/SmoothingGroups.h less more

51	51	{
52	52	// let the rest uninitialized for performance - in release builds.
53	53	// in debug builds set all indices to a common magic value
54		#ifdef _DEBUG
	54	#ifdef ASSIMP_BUILD_DEBUG
55	55	this->mIndices[0] = 0xffffffff;
56	56	this->mIndices[1] = 0xffffffff;
57	57	this->mIndices[2] = 0xffffffff;

-1

code/SortByPTypeProcess.cpp less more

150	150	std::vector<unsigned int>::iterator meshIdx = replaceMeshIndex.begin();
151	151	for (unsigned int i = 0; i < pScene->mNumMeshes;++i)
152	152	{
153		aiMesh* mesh = pScene->mMeshes[i];
	153	aiMesh* const mesh = pScene->mMeshes[i];
154	154	ai_assert(0 != mesh->mPrimitiveTypes);
155	155
156	156	// if there's just one primitive type in the mesh there's nothing to do for us

366	366
367	367	// delete the input mesh
368	368	delete mesh;
	369
	370	// avoid invalid pointer
	371	pScene->mMeshes[i] = NULL;
369	372	}
370	373
371	374	if (outMeshes.empty())

-1

code/SortByPTypeProcess.h less more

54	54	* A mesh with 5 lines, 3 points and 145 triangles would be split in 3
55	55	* submeshes.
56	56	*/
57		class SortByPTypeProcess : public BaseProcess
	57	class ASSIMP_API SortByPTypeProcess : public BaseProcess
58	58	{
59	59	public:
60	60

-1

code/SpatialSort.cpp less more

328	328	++t;
329	329	}
330	330
331		#ifdef _DEBUG
	331	#ifdef ASSIMP_BUILD_DEBUG
332	332
333	333	// debug invariant: mPositions[i].mIndex values must range from 0 to mPositions.size()-1
334	334	for (size_t i = 0; i < fill.size(); ++i) {

-4

code/SplitLargeMeshes.h less more

75	75	#endif
76	76
77	77	// ---------------------------------------------------------------------------
78		/** Postprocessing filter to split large meshes into submeshes
	78	/** Post-processing filter to split large meshes into sub-meshes
79	79	*
80	80	* Applied BEFORE the JoinVertices-Step occurs.
81	81	* Returns NON-UNIQUE vertices, splits by triangle number.
82	82	*/
83		class SplitLargeMeshesProcess_Triangle : public BaseProcess
	83	class ASSIMP_API SplitLargeMeshesProcess_Triangle : public BaseProcess
84	84	{
85	85	friend class SplitLargeMeshesProcess_Vertex;
86	86

143	143
144	144
145	145	// ---------------------------------------------------------------------------
146		/** Postprocessing filter to split large meshes into submeshes
	146	/** Post-processing filter to split large meshes into sub-meshes
147	147	*
148	148	* Applied AFTER the JoinVertices-Step occurs.
149	149	* Returns UNIQUE vertices, splits by vertex number.
150	150	*/
151		class SplitLargeMeshesProcess_Vertex : public BaseProcess
	151	class ASSIMP_API SplitLargeMeshesProcess_Vertex : public BaseProcess
152	152	{
153	153	public:
154	154

-1

code/StreamReader.h less more

192	192
193	193	// ---------------------------------------------------------------------
194	194	/** Increase the file pointer (relative seeking) */
195		void IncPtr(int plus) {
	195	void IncPtr(size_t plus) {
196	196	current += plus;
197	197	if (current > limit) {
198	198	throw DeadlyImportError("End of file or read limit was reached");

-1

code/StringComparison.h less more

86	86	// print all future zeroes from now
87	87	mustPrint = true;
88	88
89		*out++ = '0'+digit;
	89	*out++ = '0'+static_cast<char>(digit);
90	90
91	91	++written;
92	92	number -= digit*cur;

-3

code/Subdivision.cpp less more

382	382	}
383	383
384	384	// check the other way round for consistency
385		#ifdef _DEBUG
	385	#ifdef ASSIMP_BUILD_DEBUG
386	386
387	387	for (size_t t = 0; t < ofsadjvec.size()-1; ++t) {
388	388	for (unsigned int m = 0; m < cntadjfac[t]; ++m) {

529	529
530	530	ai_assert(adj[o]-moffsets[nidx].first < mp->mNumFaces);
531	531	const aiFace& f = mp->mFaces[adj[o]-moffsets[nidx].first];
532		# ifdef _DEBUG
	532	# ifdef ASSIMP_BUILD_DEBUG
533	533	bool haveit = false;
534	534	# endif
535	535

552	552	// fixme: replace with mod face.mNumIndices?
553	553	R += c0.midpoint+c1.midpoint;
554	554
555		# ifdef _DEBUG
	555	# ifdef ASSIMP_BUILD_DEBUG
556	556	haveit = true;
557	557	# endif
558	558	break;

+13

-0

code/TinyFormatter.h less more

89	89	underlying << sin;
90	90	}
91	91
	92
	93	// The problem described here:
	94	// https://sourceforge.net/tracker/?func=detail&atid=1067632&aid=3358562&group_id=226462
	95	// can also cause trouble here. Apparently, older gcc versions sometimes copy temporaries
	96	// being bound to const ref& function parameters. Copying streams is not permitted, though.
	97	// This workaround avoids this by manually specifying a copy ctor.
	98	#if !defined(__GNUC__) \|\| !defined(__APPLE__) \|\| __GNUC__ > 4 \|\| (__GNUC__ == 4 && __GNUC_MINOR__ >= 6)
	99	basic_formatter(const basic_formatter& other) {
	100	underlying << (string)other;
	101	}
	102	#endif
	103
	104
92	105	public:
93	106
94	107	operator string () const {

+43

-7

code/TriangulateProcess.cpp less more

187	187	FILE* fout = fopen(POLY_OUTPUT_FILE,"a");
188	188	#endif
189	189
	190	const aiVector3D* verts = pMesh->mVertices;
	191
190	192	// use boost::scoped_array to avoid slow std::vector<bool> specialiations
191	193	boost::scoped_array<bool> done(new bool[max_out]);
192	194	for( unsigned int a = 0; a < pMesh->mNumFaces; a++) {

215	217
216	218	face.mIndices = NULL;
217	219	continue;
218		} /* does not handle concave quads
	220	}
219	221	// optimized code for quadrilaterals
220	222	else if ( face.mNumIndices == 4) {
	223
	224	// quads can have at maximum one concave vertex. Determine
	225	// this vertex (if it exists) and start tri-fanning from
	226	// it.
	227	unsigned int start_vertex = 0;
	228	for (unsigned int i = 0; i < 4; ++i) {
	229	const aiVector3D& v0 = verts[face.mIndices[(i+3) % 4]];
	230	const aiVector3D& v1 = verts[face.mIndices[(i+2) % 4]];
	231	const aiVector3D& v2 = verts[face.mIndices[(i+1) % 4]];
	232
	233	const aiVector3D& v = verts[face.mIndices[i]];
	234
	235	aiVector3D left = (v0-v);
	236	aiVector3D diag = (v1-v);
	237	aiVector3D right = (v2-v);
	238
	239	left.Normalize();
	240	diag.Normalize();
	241	right.Normalize();
	242
	243	const float angle = acos(leftdiag) + acos(rightdiag);
	244	if (angle > AI_MATH_PI_F) {
	245	// this is the concave point
	246	start_vertex = i;
	247	break;
	248	}
	249	}
	250
	251	const unsigned int temp[] = {face.mIndices[0], face.mIndices[1], face.mIndices[2], face.mIndices[3]};
	252
221	253	aiFace& nface = *curOut++;
222	254	nface.mNumIndices = 3;
223	255	nface.mIndices = face.mIndices;
224	256
	257	nface.mIndices[0] = temp[start_vertex];
	258	nface.mIndices[1] = temp[(start_vertex + 1) % 4];
	259	nface.mIndices[2] = temp[(start_vertex + 2) % 4];
	260
225	261	aiFace& sface = *curOut++;
226	262	sface.mNumIndices = 3;
227	263	sface.mIndices = new unsigned int[3];
228	264
229		sface.mIndices[0] = face.mIndices[0];
230		sface.mIndices[1] = face.mIndices[2];
231		sface.mIndices[2] = face.mIndices[3];
232
	265	sface.mIndices[0] = temp[start_vertex];
	266	sface.mIndices[1] = temp[(start_vertex + 2) % 4];
	267	sface.mIndices[2] = temp[(start_vertex + 3) % 4];
	268
	269	// prevent double deletion of the indices field
233	270	face.mIndices = NULL;
234	271	continue;
235		} */
	272	}
236	273	else
237	274	{
238	275	// A polygon with more than 3 vertices can be either concave or convex.

245	282	// We project it onto a plane to get a 2d triangle.
246	283
247	284	// Collect all vertices of of the polygon.
248		const aiVector3D* verts = pMesh->mVertices;
249	285	for (tmp = 0; tmp < max; ++tmp) {
250	286	temp_verts3d[tmp] = verts[idx[tmp]];
251	287	}

-3

code/TriangulateProcess.h less more

48	48	struct aiMesh;
49	49
50	50	class TriangulateProcessTest;
51		namespace Assimp
52		{
	51
	52	namespace Assimp {
53	53
54	54	// ---------------------------------------------------------------------------
55	55	/** The TriangulateProcess splits up all faces with more than three indices
56	56	* into triangles. You usually want this to happen because the graphics cards
57	57	* need their data as triangles.
58	58	*/
59		class TriangulateProcess : public BaseProcess
	59	class ASSIMP_API TriangulateProcess : public BaseProcess
60	60	{
61	61	public:
62	62

-1

code/ValidateDataStructure.cpp less more

85	85	ai_assert(iLen > 0);
86	86
87	87	va_end(args);
88		#ifdef _DEBUG
	88	#ifdef ASSIMP_BUILD_DEBUG
89	89	ai_assert( false );
90	90	#endif
91	91	throw DeadlyImportError("Validation failed: " + std::string(szBuffer,iLen));

-1

code/ValidateDataStructure.h less more

81	81	/** Report a validation error. This will throw an exception,
82	82	* control won't return.
83	83	* @param msg Format string for sprintf().*/
84		AI_WONT_RETURN void ReportError(const char* msg,...);
	84	AI_WONT_RETURN void ReportError(const char* msg,...) AI_WONT_RETURN_SUFFIX;
85	85
86	86
87	87	// -------------------------------------------------------------------

-0

code/Vertex.h less more

47	47	#ifndef AI_VERTEX_H_INC
48	48	#define AI_VERTEX_H_INC
49	49
	50	#include <functional>
50	51
51	52	namespace Assimp {
52	53

-1

code/VertexTriangleAdjacency.h less more

55	55	* @note Although it is called #VertexTriangleAdjacency, the current version does also
56	56	* support arbitrary polygons. */
57	57	// --------------------------------------------------------------------------------------------
58		class VertexTriangleAdjacency
	58	class ASSIMP_API VertexTriangleAdjacency
59	59	{
60	60	public:
61	61

-1

code/XFileHelper.h less more

84	84	aiColor3D mEmissive;
85	85	std::vector<TexEntry> mTextures;
86	86
87		Material() { mIsReference = false; }
	87	size_t sceneIndex; ///< the index under which it was stored in the scene's material list
	88
	89	Material() { mIsReference = false; sceneIndex = SIZE_MAX; }
88	90	};
89	91
90	92	/** Helper structure to represent a bone weight */

+46

-33

code/XFileImporter.cpp less more

51	51	using namespace Assimp;
52	52
53	53	static const aiImporterDesc desc = {
54		"Collada Importer",
	54	"Direct3D XFile Importer",
55	55	"",
56	56	"",
57	57	"",

109	109	if( fileSize < 16)
110	110	throw DeadlyImportError( "XFile is too small.");
111	111
112		// need to clear members - this method might be called multiple
113		// times on a single XFileImporter instance.
114		mImportedMats.clear();
115
116	112	// in the hope that binary files will never start with a BOM ...
117	113	mBuffer.resize( fileSize + 1);
118	114	file->Read( &mBuffer.front(), 1, fileSize);

131	127
132	128	// ------------------------------------------------------------------------------------------------
133	129	// Constructs the return data structure out of the imported data.
134		void XFileImporter::CreateDataRepresentationFromImport( aiScene* pScene, const XFile::Scene* pData)
	130	void XFileImporter::CreateDataRepresentationFromImport( aiScene* pScene, XFile::Scene* pData)
135	131	{
136	132	// Read the global materials first so that meshes referring to them can find them later
137	133	ConvertMaterials( pScene, pData->mGlobalMaterials);

232	228	std::vector<aiMesh*> meshes;
233	229	for( unsigned int a = 0; a < pMeshes.size(); a++)
234	230	{
235		const XFile::Mesh* sourceMesh = pMeshes[a];
236		// first convert its materials so that we can find them when searching by name afterwards
	231	XFile::Mesh* sourceMesh = pMeshes[a];
	232	// first convert its materials so that we can find them with their index afterwards
237	233	ConvertMaterials( pScene, sourceMesh->mMaterials);
238	234
239	235	unsigned int numMaterials = std::max( (unsigned int)sourceMesh->mMaterials.size(), 1u);

271	267	aiMesh* mesh = new aiMesh;
272	268	meshes.push_back( mesh);
273	269
274		// find the material by name in the scene's material list. Either own material
275		// or referenced material, it should already be found there
	270	// find the material in the scene's material list. Either own material
	271	// or referenced material, it should already have a valid index
276	272	if( sourceMesh->mFaceMaterials.size() > 0)
277	273	{
278		std::map<std::string, unsigned int>::const_iterator matIt = mImportedMats.find( sourceMesh->mMaterials[b].mName);
279		if( matIt == mImportedMats.end())
280		mesh->mMaterialIndex = 0;
281		else
282		mesh->mMaterialIndex = matIt->second;
	274	mesh->mMaterialIndex = sourceMesh->mMaterials[b].sceneIndex;
283	275	} else
284	276	{
285	277	mesh->mMaterialIndex = 0;

553	545
554	546	// ------------------------------------------------------------------------------------------------
555	547	// Converts all materials in the given array and stores them in the scene's material list.
556		void XFileImporter::ConvertMaterials( aiScene* pScene, const std::vector<XFile::Material>& pMaterials)
	548	void XFileImporter::ConvertMaterials( aiScene* pScene, std::vector<XFile::Material>& pMaterials)
557	549	{
558	550	// count the non-referrer materials in the array
559		unsigned int numMaterials = 0;
	551	unsigned int numNewMaterials = 0;
560	552	for( unsigned int a = 0; a < pMaterials.size(); a++)
561	553	if( !pMaterials[a].mIsReference)
562		numMaterials++;
563
564		if( numMaterials == 0)
565		return;
	554	numNewMaterials++;
566	555
567	556	// resize the scene's material list to offer enough space for the new materials
568		aiMaterial** prevMats = pScene->mMaterials;
569		pScene->mMaterials = new aiMaterial*[pScene->mNumMaterials + numMaterials];
570		if( prevMats)
571		{
572		memcpy( pScene->mMaterials, prevMats, pScene->mNumMaterials * sizeof( aiMaterial*));
573		delete [] prevMats;
574		}
	557	if( numNewMaterials > 0 )
	558	{
	559	aiMaterial** prevMats = pScene->mMaterials;
	560	pScene->mMaterials = new aiMaterial*[pScene->mNumMaterials + numNewMaterials];
	561	if( prevMats)
	562	{
	563	memcpy( pScene->mMaterials, prevMats, pScene->mNumMaterials * sizeof( aiMaterial*));
	564	delete [] prevMats;
	565	}
	566	}
575	567
576	568	// convert all the materials given in the array
577	569	for( unsigned int a = 0; a < pMaterials.size(); a++)
578	570	{
579		const XFile::Material& oldMat = pMaterials[a];
	571	XFile::Material& oldMat = pMaterials[a];
580	572	if( oldMat.mIsReference)
581		continue;
	573	{
	574	// find the material it refers to by name, and store its index
	575	for( size_t a = 0; a < pScene->mNumMaterials; ++a )
	576	{
	577	aiString name;
	578	pScene->mMaterials[a]->Get( AI_MATKEY_NAME, name);
	579	if( strcmp( name.C_Str(), oldMat.mName.data()) == 0 )
	580	{
	581	oldMat.sceneIndex = a;
	582	break;
	583	}
	584	}
	585
	586	if( oldMat.sceneIndex == SIZE_MAX )
	587	{
	588	DefaultLogger::get()->warn( boost::str( boost::format( "Could not resolve global material reference \"%s\"") % oldMat.mName));
	589	oldMat.sceneIndex = 0;
	590	}
	591
	592	continue;
	593	}
582	594
583	595	aiMaterial* mat = new aiMaterial;
584	596	aiString name;

593	605
594	606	mat->AddProperty<int>( &shadeMode, 1, AI_MATKEY_SHADING_MODEL);
595	607	// material colours
596		// FIX: Setup this as ambient not as emissive color
597		mat->AddProperty( &oldMat.mEmissive, 1, AI_MATKEY_COLOR_AMBIENT);
	608	// Unclear: there's no ambient colour, but emissive. What to put for ambient?
	609	// Probably nothing at all, let the user select a suitable default.
	610	mat->AddProperty( &oldMat.mEmissive, 1, AI_MATKEY_COLOR_EMISSIVE);
598	611	mat->AddProperty( &oldMat.mDiffuse, 1, AI_MATKEY_COLOR_DIFFUSE);
599	612	mat->AddProperty( &oldMat.mSpecular, 1, AI_MATKEY_COLOR_SPECULAR);
600	613	mat->AddProperty( &oldMat.mSpecularExponent, 1, AI_MATKEY_SHININESS);

676	689	}
677	690
678	691	pScene->mMaterials[pScene->mNumMaterials] = mat;
679		mImportedMats[oldMat.mName] = pScene->mNumMaterials;
	692	oldMat.sceneIndex = pScene->mNumMaterials;
680	693	pScene->mNumMaterials++;
681	694	}
682	695	}

-7

code/XFileImporter.h less more

98	98	* @param pData The imported data in the internal temporary
99	99	* representation.
100	100	*/
101		void CreateDataRepresentationFromImport( aiScene* pScene,
102		const XFile::Scene* pData);
	101	void CreateDataRepresentationFromImport( aiScene* pScene, XFile::Scene* pData);
103	102
104	103	// -------------------------------------------------------------------
105	104	/** Recursively creates scene nodes from the imported hierarchy.

138	137	* @param pScene The scene to hold the converted materials.
139	138	* @param pMaterials The material array to convert.
140	139	*/
141		void ConvertMaterials( aiScene* pScene,
142		const std::vector<XFile::Material>& pMaterials);
	140	void ConvertMaterials( aiScene* pScene, std::vector<XFile::Material>& pMaterials);
143	141
144	142	protected:
145	143	/** Buffer to hold the loaded file */
146	144	std::vector<char> mBuffer;
147
148		/** Imported materials: index in the scene's material list by name */
149		std::map<std::string, unsigned int> mImportedMats;
150	145	};
151	146
152	147	} // end of namespace Assimp

-2

code/XFileParser.cpp less more

134	134	if( mBinaryFloatSize != 32 && mBinaryFloatSize != 64)
135	135	ThrowException( boost::str( boost::format( "Unknown float size %1% specified in xfile header.")
136	136	% mBinaryFloatSize));
	137
	138	// The x format specifies size in bits, but we work in bytes
	139	mBinaryFloatSize /= 8;
137	140
138	141	P += 16;
139	142

459	462	Face& face = pMesh->mPosFaces[a];
460	463	for( unsigned int b = 0; b < numIndices; b++)
461	464	face.mIndices.push_back( ReadInt());
462		CheckForSeparator();
	465	TestForSeparator();
463	466	}
464	467
465	468	// here, other data objects may follow

582	585	for( unsigned int b = 0; b < numIndices; b++)
583	586	face.mIndices.push_back( ReadInt());
584	587
585		CheckForSeparator();
	588	TestForSeparator();
586	589	}
587	590
588	591	CheckForClosingBrace();

-2

code/XFileParser.h less more

73	73	~XFileParser();
74	74
75	75	/** Returns the temporary representation of the imported data */
76		const XFile::Scene* GetImportedData() const { return mScene; }
	76	XFile::Scene* GetImportedData() const { return mScene; }
77	77
78	78	protected:
79	79	void ParseFile();

143	143	protected:
144	144	unsigned int mMajorVersion, mMinorVersion; ///< version numbers
145	145	bool mIsBinaryFormat; ///< true if the file is in binary, false if it's in text form
146		unsigned int mBinaryFloatSize; ///< float size, either 32 or 64 bits
	146	unsigned int mBinaryFloatSize; ///< float size in bytes, either 4 or 8
147	147	// counter for number arrays in binary format
148	148	unsigned int mBinaryNumCount;
149	149

-1

code/XGLLoader.cpp less more

76	76	void* free;
77	77	};
78	78
	79	namespace Assimp { // this has to be in here because LogFunctions is in ::Assimp
79	80	template<> const std::string LogFunctions<XGLImporter>::log_prefix = "XGL: ";
	81
	82	}
80	83
81	84	static const aiImporterDesc desc = {
82	85	"XGL Importer",

393	396	// XXX
394	397	}
395	398	else if (s == "meshref") {
396		const int id = ReadIndexFromText();
	399	const unsigned int id = static_cast<unsigned int>( ReadIndexFromText() );
397	400
398	401	std::multimap<unsigned int, aiMesh*>::iterator it = scope.meshes.find(id), end = scope.meshes.end();
399	402	if (it == end) {

+25

-21

code/fast_atof.h less more

15	15	#define __FAST_A_TO_F_H_INCLUDED__
16	16
17	17	#include <math.h>
	18	#include <limits.h>
18	19
19	20	namespace Assimp
20	21	{
21	22
22		const float fast_atof_table[16] = { // we write [16] here instead of [] to work around a swig bug
23		0.f,
24		0.1f,
25		0.01f,
26		0.001f,
27		0.0001f,
28		0.00001f,
29		0.000001f,
30		0.0000001f,
31		0.00000001f,
32		0.000000001f,
33		0.0000000001f,
34		0.00000000001f,
35		0.000000000001f,
36		0.0000000000001f,
37		0.00000000000001f,
38		0.000000000000001f
	23	const double fast_atof_table[16] = { // we write [16] here instead of [] to work around a swig bug
	24	0.0,
	25	0.1,
	26	0.01,
	27	0.001,
	28	0.0001,
	29	0.00001,
	30	0.000001,
	31	0.0000001,
	32	0.00000001,
	33	0.000000001,
	34	0.0000000001,
	35	0.00000000001,
	36	0.000000000001,
	37	0.0000000000001,
	38	0.00000000000001,
	39	0.000000000000001
39	40	};
40	41
41	42

177	178	unsigned int cur = 0;
178	179	uint64_t value = 0;
179	180
	181	if ( in < '0' \|\| in > '9' )
	182	throw std::invalid_argument(std::string("The string \"") + in + "\" cannot be converted into a value.");
	183
180	184	bool running = true;
181	185	while ( running )
182	186	{

186	190	const uint64_t new_value = ( value * 10 ) + ( *in - '0' );
187	191
188	192	if (new_value < value) /* numeric overflow, we rely on you */
189		return value;
	193	throw std::overflow_error(std::string("Converting the string \"") + in + "\" into a value resulted in overflow.");
190	194
191	195	value = new_value;
192	196

222	226	// If you find any bugs, please send them to me, niko (at) irrlicht3d.org.
223	227	// ------------------------------------------------------------------------------------
224	228	template <typename Real>
225		inline const char* fast_atoreal_move( const char* c, Real& out)
	229	inline const char* fast_atoreal_move( const char* c, Real& out, bool check_comma = true)
226	230	{
227	231	Real f;
228	232

232	236	}
233	237
234	238	f = static_cast<Real>( strtoul10_64 ( c, &c) );
235		if (*c == '.' \|\| (c[0] == ',' && c[1] >= '0' && c[1] <= '9')) // allow for commas, too
	239	if (*c == '.' \|\| (check_comma && c[0] == ',' && c[1] >= '0' && c[1] <= '9')) // allow for commas, too
236	240	{
237	241	++c;
238	242

268	272	if (einv) {
269	273	exp = -exp;
270	274	}
271		f *= pow(static_cast<Real>(10.0f), exp);
	275	f *= pow(static_cast<Real>(10.0), exp);
272	276	}
273	277
274	278	if (inv) {

+11

-1

code/irrXMLWrapper.h less more

80	80	// Map the buffer into memory and convert it to UTF8. IrrXML provides its
81	81	// own conversion, which is merely a cast from uintNN_t to uint8_t. Thus,
82	82	// it is not suitable for our purposes and we have to do it BEFORE IrrXML
83		// gets the buffer. Sadly, this forces as to map the whole file into
	83	// gets the buffer. Sadly, this forces us to map the whole file into
84	84	// memory.
85	85
86	86	data.resize(stream->FileSize());
87	87	stream->Read(&data[0],data.size(),1);
	88
	89	// Remove null characters from the input sequence otherwise the parsing will utterly fail
	90	unsigned int size = 0;
	91	unsigned int size_max = data.size();
	92	for(unsigned int i = 0; i < size_max; i++) {
	93	if(data[i] != '\0') {
	94	data[size++] = data[i];
	95	}
	96	}
	97	data.resize(size);
88	98
89	99	BaseImporter::ConvertToUTF8(data);
90	100	}

-729

~~code/pstdint.h~~ less more

0		/* A portable stdint.h
1		****************************************************************************
2		* BSD License:
3		****************************************************************************
4		*
5		* Copyright (c) 2005-2007 Paul Hsieh
6		* All rights reserved.
7		*
8		* Redistribution and use in source and binary forms, with or without
9		* modification, are permitted provided that the following conditions
10		* are met:
11		*
12		* 1. Redistributions of source code must retain the above copyright
13		* notice, this list of conditions and the following disclaimer.
14		* 2. Redistributions in binary form must reproduce the above copyright
15		* notice, this list of conditions and the following disclaimer in the
16		* documentation and/or other materials provided with the distribution.
17		* 3. The name of the author may not be used to endorse or promote products
18		* derived from this software without specific prior written permission.
19		*
20		* THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR
21		* IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES
22		* OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED.
23		* IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT, INDIRECT,
24		* INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT
25		* NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
26		* DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
27		* THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
28		* (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF
29		* THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
30		*
31		****************************************************************************
32		*
33		* Version 0.1.10
34		*
35		* The ANSI C standard committee, for the C99 standard, specified the
36		* inclusion of a new standard include file called stdint.h. This is
37		* a very useful and long desired include file which contains several
38		* very precise definitions for integer scalar types that is
39		* critically important for making portable several classes of
40		* applications including cryptography, hashing, variable length
41		* integer libraries and so on. But for most developers its likely
42		* useful just for programming sanity.
43		*
44		* The problem is that most compiler vendors have decided not to
45		* implement the C99 standard, and the next C++ language standard
46		* (which has a lot more mindshare these days) will be a long time in
47		* coming and its unknown whether or not it will include stdint.h or
48		* how much adoption it will have. Either way, it will be a long time
49		* before all compilers come with a stdint.h and it also does nothing
50		* for the extremely large number of compilers available today which
51		* do not include this file, or anything comparable to it.
52		*
53		* So that's what this file is all about. Its an attempt to build a
54		* single universal include file that works on as many platforms as
55		* possible to deliver what stdint.h is supposed to. A few things
56		* that should be noted about this file:
57		*
58		* 1) It is not guaranteed to be portable and/or present an identical
59		* interface on all platforms. The extreme variability of the
60		* ANSI C standard makes this an impossibility right from the
61		* very get go. Its really only meant to be useful for the vast
62		* majority of platforms that possess the capability of
63		* implementing usefully and precisely defined, standard sized
64		* integer scalars. Systems which are not intrinsically 2s
65		* complement may produce invalid constants.
66		*
67		* 2) There is an unavoidable use of non-reserved symbols.
68		*
69		* 3) Other standard include files are invoked.
70		*
71		* 4) This file may come in conflict with future platforms that do
72		* include stdint.h. The hope is that one or the other can be
73		* used with no real difference.
74		*
75		* 5) In the current verison, if your platform can't represent
76		* int32_t, int16_t and int8_t, it just dumps out with a compiler
77		* error.
78		*
79		* 6) 64 bit integers may or may not be defined. Test for their
80		* presence with the test: #ifdef INT64_MAX or #ifdef UINT64_MAX.
81		* Note that this is different from the C99 specification which
82		* requires the existence of 64 bit support in the compiler. If
83		* this is not defined for your platform, yet it is capable of
84		* dealing with 64 bits then it is because this file has not yet
85		* been extended to cover all of your system's capabilities.
86		*
87		* 7) (u)intptr_t may or may not be defined. Test for its presence
88		* with the test: #ifdef PTRDIFF_MAX. If this is not defined
89		* for your platform, then it is because this file has not yet
90		* been extended to cover all of your system's capabilities, not
91		* because its optional.
92		*
93		* 8) The following might not been defined even if your platform is
94		* capable of defining it:
95		*
96		* WCHAR_MIN
97		* WCHAR_MAX
98		* (u)int64_t
99		* PTRDIFF_MIN
100		* PTRDIFF_MAX
101		* (u)intptr_t
102		*
103		* 9) The following have not been defined:
104		*
105		* WINT_MIN
106		* WINT_MAX
107		*
108		* 10) The criteria for defining (u)int_least(*)_t isn't clear,
109		* except for systems which don't have a type that precisely
110		* defined 8, 16, or 32 bit types (which this include file does
111		* not support anyways). Default definitions have been given.
112		*
113		* 11) The criteria for defining (u)int_fast(*)_t isn't something I
114		* would trust to any particular compiler vendor or the ANSI C
115		* committee. It is well known that "compatible systems" are
116		* commonly created that have very different performance
117		* characteristics from the systems they are compatible with,
118		* especially those whose vendors make both the compiler and the
119		* system. Default definitions have been given, but its strongly
120		* recommended that users never use these definitions for any
121		* reason (they do NOT deliver any serious guarantee of
122		* improved performance -- not in this file, nor any vendor's
123		* stdint.h).
124		*
125		* 12) The following macros:
126		*
127		* PRINTF_INTMAX_MODIFIER
128		* PRINTF_INT64_MODIFIER
129		* PRINTF_INT32_MODIFIER
130		* PRINTF_INT16_MODIFIER
131		* PRINTF_LEAST64_MODIFIER
132		* PRINTF_LEAST32_MODIFIER
133		* PRINTF_LEAST16_MODIFIER
134		* PRINTF_INTPTR_MODIFIER
135		*
136		* are strings which have been defined as the modifiers required
137		* for the "d", "u" and "x" printf formats to correctly output
138		* (u)intmax_t, (u)int64_t, (u)int32_t, (u)int16_t, (u)least64_t,
139		* (u)least32_t, (u)least16_t and (u)intptr_t types respectively.
140		* PRINTF_INTPTR_MODIFIER is not defined for some systems which
141		* provide their own stdint.h. PRINTF_INT64_MODIFIER is not
142		* defined if INT64_MAX is not defined. These are an extension
143		* beyond what C99 specifies must be in stdint.h.
144		*
145		* In addition, the following macros are defined:
146		*
147		* PRINTF_INTMAX_HEX_WIDTH
148		* PRINTF_INT64_HEX_WIDTH
149		* PRINTF_INT32_HEX_WIDTH
150		* PRINTF_INT16_HEX_WIDTH
151		* PRINTF_INT8_HEX_WIDTH
152		* PRINTF_INTMAX_DEC_WIDTH
153		* PRINTF_INT64_DEC_WIDTH
154		* PRINTF_INT32_DEC_WIDTH
155		* PRINTF_INT16_DEC_WIDTH
156		* PRINTF_INT8_DEC_WIDTH
157		*
158		* Which specifies the maximum number of characters required to
159		* print the number of that type in either hexadecimal or decimal.
160		* These are an extension beyond what C99 specifies must be in
161		* stdint.h.
162		*
163		* Compilers tested (all with 0 warnings at their highest respective
164		* settings): Borland Turbo C 2.0, WATCOM C/C++ 11.0 (16 bits and 32
165		* bits), Microsoft Visual C++ 6.0 (32 bit), Microsoft Visual Studio
166		* .net (VC7), Intel C++ 4.0, GNU gcc v3.3.3
167		*
168		* This file should be considered a work in progress. Suggestions for
169		* improvements, especially those which increase coverage are strongly
170		* encouraged.
171		*
172		* Acknowledgements
173		*
174		* The following people have made significant contributions to the
175		* development and testing of this file:
176		*
177		* Chris Howie
178		* John Steele Scott
179		* Dave Thorup
180		*
181		*/
182
183		#include <stddef.h>
184		#include <limits.h>
185		#include <signal.h>
186
187		/*
188		* For gcc with _STDINT_H, fill in the PRINTF_INT*_MODIFIER macros, and
189		* do nothing else. On the Mac OS X version of gcc this is _STDINT_H_.
190		*/
191
192		#if ((defined(__STDC__) && __STDC__ && __STDC_VERSION__ >= 199901L) \|\| (defined (__WATCOMC__) && (defined (_STDINT_H_INCLUDED) \|\| __WATCOMC__ >= 1250)) \|\| (defined(__GNUC__) && (defined(_STDINT_H) \|\| defined(_STDINT_H_)))) && !defined (_PSTDINT_H_INCLUDED) && !defined(_STDINT)
193		#include <stdint.h>
194		#define _PSTDINT_H_INCLUDED
195		# ifndef PRINTF_INT64_MODIFIER
196		# define PRINTF_INT64_MODIFIER "ll"
197		# endif
198		# ifndef PRINTF_INT32_MODIFIER
199		# define PRINTF_INT32_MODIFIER "l"
200		# endif
201		# ifndef PRINTF_INT16_MODIFIER
202		# define PRINTF_INT16_MODIFIER "h"
203		# endif
204		# ifndef PRINTF_INTMAX_MODIFIER
205		# define PRINTF_INTMAX_MODIFIER PRINTF_INT64_MODIFIER
206		# endif
207		# ifndef PRINTF_INT64_HEX_WIDTH
208		# define PRINTF_INT64_HEX_WIDTH "16"
209		# endif
210		# ifndef PRINTF_INT32_HEX_WIDTH
211		# define PRINTF_INT32_HEX_WIDTH "8"
212		# endif
213		# ifndef PRINTF_INT16_HEX_WIDTH
214		# define PRINTF_INT16_HEX_WIDTH "4"
215		# endif
216		# ifndef PRINTF_INT8_HEX_WIDTH
217		# define PRINTF_INT8_HEX_WIDTH "2"
218		# endif
219		# ifndef PRINTF_INT64_DEC_WIDTH
220		# define PRINTF_INT64_DEC_WIDTH "20"
221		# endif
222		# ifndef PRINTF_INT32_DEC_WIDTH
223		# define PRINTF_INT32_DEC_WIDTH "10"
224		# endif
225		# ifndef PRINTF_INT16_DEC_WIDTH
226		# define PRINTF_INT16_DEC_WIDTH "5"
227		# endif
228		# ifndef PRINTF_INT8_DEC_WIDTH
229		# define PRINTF_INT8_DEC_WIDTH "3"
230		# endif
231		# ifndef PRINTF_INTMAX_HEX_WIDTH
232		# define PRINTF_INTMAX_HEX_WIDTH PRINTF_INT64_HEX_WIDTH
233		# endif
234		# ifndef PRINTF_INTMAX_DEC_WIDTH
235		# define PRINTF_INTMAX_DEC_WIDTH PRINTF_INT64_DEC_WIDTH
236		# endif
237
238		/*
239		* Something really weird is going on with Open Watcom. Just pull some of
240		* these duplicated definitions from Open Watcom's stdint.h file for now.
241		*/
242
243		# if defined (__WATCOMC__) && __WATCOMC__ >= 1250
244		# if !defined (INT64_C)
245		# define INT64_C(x) (x + (INT64_MAX - INT64_MAX))
246		# endif
247		# if !defined (UINT64_C)
248		# define UINT64_C(x) (x + (UINT64_MAX - UINT64_MAX))
249		# endif
250		# if !defined (INT32_C)
251		# define INT32_C(x) (x + (INT32_MAX - INT32_MAX))
252		# endif
253		# if !defined (UINT32_C)
254		# define UINT32_C(x) (x + (UINT32_MAX - UINT32_MAX))
255		# endif
256		# if !defined (INT16_C)
257		# define INT16_C(x) (x)
258		# endif
259		# if !defined (UINT16_C)
260		# define UINT16_C(x) (x)
261		# endif
262		# if !defined (INT8_C)
263		# define INT8_C(x) (x)
264		# endif
265		# if !defined (UINT8_C)
266		# define UINT8_C(x) (x)
267		# endif
268		# if !defined (UINT64_MAX)
269		# define UINT64_MAX 18446744073709551615ULL
270		# endif
271		# if !defined (INT64_MAX)
272		# define INT64_MAX 9223372036854775807LL
273		# endif
274		# if !defined (UINT32_MAX)
275		# define UINT32_MAX 4294967295UL
276		# endif
277		# if !defined (INT32_MAX)
278		# define INT32_MAX 2147483647L
279		# endif
280		# if !defined (INTMAX_MAX)
281		# define INTMAX_MAX INT64_MAX
282		# endif
283		# if !defined (INTMAX_MIN)
284		# define INTMAX_MIN INT64_MIN
285		# endif
286		# endif
287		#endif
288
289		#ifndef _PSTDINT_H_INCLUDED
290		#define _PSTDINT_H_INCLUDED
291
292		#ifndef SIZE_MAX
293		# define SIZE_MAX (~(size_t)0)
294		#endif
295
296		/*
297		* Deduce the type assignments from limits.h under the assumption that
298		* integer sizes in bits are powers of 2, and follow the ANSI
299		* definitions.
300		*/
301
302		#ifndef UINT8_MAX
303		# define UINT8_MAX 0xff
304		#endif
305		#ifndef uint8_t
306		# if (UCHAR_MAX == UINT8_MAX) \|\| defined (S_SPLINT_S)
307		typedef unsigned char uint8_t;
308		# define UINT8_C(v) ((uint8_t) v)
309		# else
310		# error "Platform not supported"
311		# endif
312		#endif
313
314		#ifndef INT8_MAX
315		# define INT8_MAX 0x7f
316		#endif
317		#ifndef INT8_MIN
318		# define INT8_MIN INT8_C(0x80)
319		#endif
320		#ifndef int8_t
321		# if (SCHAR_MAX == INT8_MAX) \|\| defined (S_SPLINT_S)
322		typedef signed char int8_t;
323		# define INT8_C(v) ((int8_t) v)
324		# else
325		# error "Platform not supported"
326		# endif
327		#endif
328
329		#ifndef UINT16_MAX
330		# define UINT16_MAX 0xffff
331		#endif
332		#ifndef uint16_t
333		#if (UINT_MAX == UINT16_MAX) \|\| defined (S_SPLINT_S)
334		typedef unsigned int uint16_t;
335		# ifndef PRINTF_INT16_MODIFIER
336		# define PRINTF_INT16_MODIFIER ""
337		# endif
338		# define UINT16_C(v) ((uint16_t) (v))
339		#elif (USHRT_MAX == UINT16_MAX)
340		typedef unsigned short uint16_t;
341		# define UINT16_C(v) ((uint16_t) (v))
342		# ifndef PRINTF_INT16_MODIFIER
343		# define PRINTF_INT16_MODIFIER "h"
344		# endif
345		#else
346		#error "Platform not supported"
347		#endif
348		#endif
349
350		#ifndef INT16_MAX
351		# define INT16_MAX 0x7fff
352		#endif
353		#ifndef INT16_MIN
354		# define INT16_MIN INT16_C(0x8000)
355		#endif
356		#ifndef int16_t
357		#if (INT_MAX == INT16_MAX) \|\| defined (S_SPLINT_S)
358		typedef signed int int16_t;
359		# define INT16_C(v) ((int16_t) (v))
360		# ifndef PRINTF_INT16_MODIFIER
361		# define PRINTF_INT16_MODIFIER ""
362		# endif
363		#elif (SHRT_MAX == INT16_MAX)
364		typedef signed short int16_t;
365		# define INT16_C(v) ((int16_t) (v))
366		# ifndef PRINTF_INT16_MODIFIER
367		# define PRINTF_INT16_MODIFIER "h"
368		# endif
369		#else
370		#error "Platform not supported"
371		#endif
372		#endif
373
374		#ifndef UINT32_MAX
375		# define UINT32_MAX (0xffffffffUL)
376		#endif
377		#ifndef uint32_t
378		#if (ULONG_MAX == UINT32_MAX) \|\| defined (S_SPLINT_S)
379		typedef unsigned long uint32_t;
380		# define UINT32_C(v) v ## UL
381		# ifndef PRINTF_INT32_MODIFIER
382		# define PRINTF_INT32_MODIFIER "l"
383		# endif
384		#elif (UINT_MAX == UINT32_MAX)
385		typedef unsigned int uint32_t;
386		# ifndef PRINTF_INT32_MODIFIER
387		# define PRINTF_INT32_MODIFIER ""
388		# endif
389		# define UINT32_C(v) v ## U
390		#elif (USHRT_MAX == UINT32_MAX)
391		typedef unsigned short uint32_t;
392		# define UINT32_C(v) ((unsigned short) (v))
393		# ifndef PRINTF_INT32_MODIFIER
394		# define PRINTF_INT32_MODIFIER ""
395		# endif
396		#else
397		#error "Platform not supported"
398		#endif
399		#endif
400
401		#ifndef INT32_MAX
402		# define INT32_MAX (0x7fffffffL)
403		#endif
404		#ifndef INT32_MIN
405		# define INT32_MIN INT32_C(0x80000000)
406		#endif
407		#ifndef int32_t
408		#if (LONG_MAX == INT32_MAX) \|\| defined (S_SPLINT_S)
409		typedef signed long int32_t;
410		# define INT32_C(v) v ## L
411		# ifndef PRINTF_INT32_MODIFIER
412		# define PRINTF_INT32_MODIFIER "l"
413		# endif
414		#elif (INT_MAX == INT32_MAX)
415		typedef signed int int32_t;
416		# define INT32_C(v) v
417		# ifndef PRINTF_INT32_MODIFIER
418		# define PRINTF_INT32_MODIFIER ""
419		# endif
420		#elif (SHRT_MAX == INT32_MAX)
421		typedef signed short int32_t;
422		# define INT32_C(v) ((short) (v))
423		# ifndef PRINTF_INT32_MODIFIER
424		# define PRINTF_INT32_MODIFIER ""
425		# endif
426		#else
427		#error "Platform not supported"
428		#endif
429		#endif
430
431		/*
432		* The macro stdint_int64_defined is temporarily used to record
433		* whether or not 64 integer support is available. It must be
434		* defined for any 64 integer extensions for new platforms that are
435		* added.
436		*/
437
438		#undef stdint_int64_defined
439		#if (defined(__STDC__) && defined(__STDC_VERSION__)) \|\| defined (S_SPLINT_S)
440		# if (__STDC__ && __STDC_VERSION >= 199901L) \|\| defined (S_SPLINT_S)
441		# define stdint_int64_defined
442		typedef long long int64_t;
443		typedef unsigned long long uint64_t;
444		# define UINT64_C(v) v ## ULL
445		# define INT64_C(v) v ## LL
446		# ifndef PRINTF_INT64_MODIFIER
447		# define PRINTF_INT64_MODIFIER "ll"
448		# endif
449		# endif
450		#endif
451
452		#if !defined (stdint_int64_defined)
453		# if defined(__GNUC__)
454		# define stdint_int64_defined
455		__extension__ typedef long long int64_t;
456		__extension__ typedef unsigned long long uint64_t;
457		# define UINT64_C(v) v ## ULL
458		# define INT64_C(v) v ## LL
459		# ifndef PRINTF_INT64_MODIFIER
460		# define PRINTF_INT64_MODIFIER "ll"
461		# endif
462		# elif defined(__MWERKS__) \|\| defined (__SUNPRO_C) \|\| defined (__SUNPRO_CC) \|\| defined (__APPLE_CC__) \|\| defined (_LONG_LONG) \|\| defined (_CRAYC) \|\| defined (S_SPLINT_S)
463		# define stdint_int64_defined
464		typedef long long int64_t;
465		typedef unsigned long long uint64_t;
466		# define UINT64_C(v) v ## ULL
467		# define INT64_C(v) v ## LL
468		# ifndef PRINTF_INT64_MODIFIER
469		# define PRINTF_INT64_MODIFIER "ll"
470		# endif
471		# elif (defined(__WATCOMC__) && defined(__WATCOM_INT64__)) \|\| (defined(_MSC_VER) && _INTEGRAL_MAX_BITS >= 64) \|\| (defined (__BORLANDC__) && __BORLANDC__ > 0x460) \|\| defined (__alpha) \|\| defined (__DECC)
472		# define stdint_int64_defined
473		typedef __int64 int64_t;
474		typedef unsigned __int64 uint64_t;
475		# define UINT64_C(v) v ## UI64
476		# define INT64_C(v) v ## I64
477		# ifndef PRINTF_INT64_MODIFIER
478		# define PRINTF_INT64_MODIFIER "I64"
479		# endif
480		# endif
481		#endif
482
483		#if !defined (LONG_LONG_MAX) && defined (INT64_C)
484		# define LONG_LONG_MAX INT64_C (9223372036854775807)
485		#endif
486		#ifndef ULONG_LONG_MAX
487		# define ULONG_LONG_MAX UINT64_C (18446744073709551615)
488		#endif
489
490		#if !defined (INT64_MAX) && defined (INT64_C)
491		# define INT64_MAX INT64_C (9223372036854775807)
492		#endif
493		#if !defined (INT64_MIN) && defined (INT64_C)
494		# define INT64_MIN INT64_C (-9223372036854775808)
495		#endif
496		#if !defined (UINT64_MAX) && defined (INT64_C)
497		# define UINT64_MAX UINT64_C (18446744073709551615)
498		#endif
499
500		/*
501		* Width of hexadecimal for number field.
502		*/
503
504		#ifndef PRINTF_INT64_HEX_WIDTH
505		# define PRINTF_INT64_HEX_WIDTH "16"
506		#endif
507		#ifndef PRINTF_INT32_HEX_WIDTH
508		# define PRINTF_INT32_HEX_WIDTH "8"
509		#endif
510		#ifndef PRINTF_INT16_HEX_WIDTH
511		# define PRINTF_INT16_HEX_WIDTH "4"
512		#endif
513		#ifndef PRINTF_INT8_HEX_WIDTH
514		# define PRINTF_INT8_HEX_WIDTH "2"
515		#endif
516
517		#ifndef PRINTF_INT64_DEC_WIDTH
518		# define PRINTF_INT64_DEC_WIDTH "20"
519		#endif
520		#ifndef PRINTF_INT32_DEC_WIDTH
521		# define PRINTF_INT32_DEC_WIDTH "10"
522		#endif
523		#ifndef PRINTF_INT16_DEC_WIDTH
524		# define PRINTF_INT16_DEC_WIDTH "5"
525		#endif
526		#ifndef PRINTF_INT8_DEC_WIDTH
527		# define PRINTF_INT8_DEC_WIDTH "3"
528		#endif
529
530		/*
531		* Ok, lets not worry about 128 bit integers for now. Moore's law says
532		* we don't need to worry about that until about 2040 at which point
533		* we'll have bigger things to worry about.
534		*/
535
536		#ifdef stdint_int64_defined
537		typedef int64_t intmax_t;
538		typedef uint64_t uintmax_t;
539		# define INTMAX_MAX INT64_MAX
540		# define INTMAX_MIN INT64_MIN
541		# define UINTMAX_MAX UINT64_MAX
542		# define UINTMAX_C(v) UINT64_C(v)
543		# define INTMAX_C(v) INT64_C(v)
544		# ifndef PRINTF_INTMAX_MODIFIER
545		# define PRINTF_INTMAX_MODIFIER PRINTF_INT64_MODIFIER
546		# endif
547		# ifndef PRINTF_INTMAX_HEX_WIDTH
548		# define PRINTF_INTMAX_HEX_WIDTH PRINTF_INT64_HEX_WIDTH
549		# endif
550		# ifndef PRINTF_INTMAX_DEC_WIDTH
551		# define PRINTF_INTMAX_DEC_WIDTH PRINTF_INT64_DEC_WIDTH
552		# endif
553		#else
554		typedef int32_t intmax_t;
555		typedef uint32_t uintmax_t;
556		# define INTMAX_MAX INT32_MAX
557		# define UINTMAX_MAX UINT32_MAX
558		# define UINTMAX_C(v) UINT32_C(v)
559		# define INTMAX_C(v) INT32_C(v)
560		# ifndef PRINTF_INTMAX_MODIFIER
561		# define PRINTF_INTMAX_MODIFIER PRINTF_INT32_MODIFIER
562		# endif
563		# ifndef PRINTF_INTMAX_HEX_WIDTH
564		# define PRINTF_INTMAX_HEX_WIDTH PRINTF_INT32_HEX_WIDTH
565		# endif
566		# ifndef PRINTF_INTMAX_DEC_WIDTH
567		# define PRINTF_INTMAX_DEC_WIDTH PRINTF_INT32_DEC_WIDTH
568		# endif
569		#endif
570
571		/*
572		* Because this file currently only supports platforms which have
573		* precise powers of 2 as bit sizes for the default integers, the
574		* least definitions are all trivial. Its possible that a future
575		* version of this file could have different definitions.
576		*/
577
578		#ifndef stdint_least_defined
579		typedef int8_t int_least8_t;
580		typedef uint8_t uint_least8_t;
581		typedef int16_t int_least16_t;
582		typedef uint16_t uint_least16_t;
583		typedef int32_t int_least32_t;
584		typedef uint32_t uint_least32_t;
585		# define PRINTF_LEAST32_MODIFIER PRINTF_INT32_MODIFIER
586		# define PRINTF_LEAST16_MODIFIER PRINTF_INT16_MODIFIER
587		# define UINT_LEAST8_MAX UINT8_MAX
588		# define INT_LEAST8_MAX INT8_MAX
589		# define UINT_LEAST16_MAX UINT16_MAX
590		# define INT_LEAST16_MAX INT16_MAX
591		# define UINT_LEAST32_MAX UINT32_MAX
592		# define INT_LEAST32_MAX INT32_MAX
593		# define INT_LEAST8_MIN INT8_MIN
594		# define INT_LEAST16_MIN INT16_MIN
595		# define INT_LEAST32_MIN INT32_MIN
596		# ifdef stdint_int64_defined
597		typedef int64_t int_least64_t;
598		typedef uint64_t uint_least64_t;
599		# define PRINTF_LEAST64_MODIFIER PRINTF_INT64_MODIFIER
600		# define UINT_LEAST64_MAX UINT64_MAX
601		# define INT_LEAST64_MAX INT64_MAX
602		# define INT_LEAST64_MIN INT64_MIN
603		# endif
604		#endif
605		#undef stdint_least_defined
606
607		/*
608		* The ANSI C committee pretending to know or specify anything about
609		* performance is the epitome of misguided arrogance. The mandate of
610		* this file is to ONLY ever support that absolute minimum
611		* definition of the fast integer types, for compatibility purposes.
612		* No extensions, and no attempt to suggest what may or may not be a
613		* faster integer type will ever be made in this file. Developers are
614		* warned to stay away from these types when using this or any other
615		* stdint.h.
616		*/
617
618		typedef int_least8_t int_fast8_t;
619		typedef uint_least8_t uint_fast8_t;
620		typedef int_least16_t int_fast16_t;
621		typedef uint_least16_t uint_fast16_t;
622		typedef int_least32_t int_fast32_t;
623		typedef uint_least32_t uint_fast32_t;
624		#define UINT_FAST8_MAX UINT_LEAST8_MAX
625		#define INT_FAST8_MAX INT_LEAST8_MAX
626		#define UINT_FAST16_MAX UINT_LEAST16_MAX
627		#define INT_FAST16_MAX INT_LEAST16_MAX
628		#define UINT_FAST32_MAX UINT_LEAST32_MAX
629		#define INT_FAST32_MAX INT_LEAST32_MAX
630		#define INT_FAST8_MIN INT_LEAST8_MIN
631		#define INT_FAST16_MIN INT_LEAST16_MIN
632		#define INT_FAST32_MIN INT_LEAST32_MIN
633		#ifdef stdint_int64_defined
634		typedef int_least64_t int_fast64_t;
635		typedef uint_least64_t uint_fast64_t;
636		# define UINT_FAST64_MAX UINT_LEAST64_MAX
637		# define INT_FAST64_MAX INT_LEAST64_MAX
638		# define INT_FAST64_MIN INT_LEAST64_MIN
639		#endif
640
641		#undef stdint_int64_defined
642
643		/*
644		* Whatever piecemeal, per compiler thing we can do about the wchar_t
645		* type limits.
646		*/
647
648		#if defined(__WATCOMC__) \|\| defined(_MSC_VER) \|\| defined (__GNUC__)
649		# include <wchar.h>
650		# ifndef WCHAR_MIN
651		# define WCHAR_MIN 0
652		# endif
653		# ifndef WCHAR_MAX
654		# define WCHAR_MAX ((wchar_t)-1)
655		# endif
656		#endif
657
658		/*
659		* Whatever piecemeal, per compiler/platform thing we can do about the
660		* (u)intptr_t types and limits.
661		*/
662
663		#if defined (_MSC_VER) && defined (_UINTPTR_T_DEFINED)
664		# define STDINT_H_UINTPTR_T_DEFINED
665		#endif
666
667		#ifndef STDINT_H_UINTPTR_T_DEFINED
668		# if defined (__alpha__) \|\| defined (__ia64__) \|\| defined (__x86_64__) \|\| defined (_WIN64)
669		# define stdint_intptr_bits 64
670		# elif defined (__WATCOMC__) \|\| defined (__TURBOC__)
671		# if defined(__TINY__) \|\| defined(__SMALL__) \|\| defined(__MEDIUM__)
672		# define stdint_intptr_bits 16
673		# else
674		# define stdint_intptr_bits 32
675		# endif
676		# elif defined (__i386__) \|\| defined (_WIN32) \|\| defined (WIN32)
677		# define stdint_intptr_bits 32
678		# elif defined (__INTEL_COMPILER)
679		/* TODO -- what will Intel do about x86-64? */
680		# endif
681
682		# ifdef stdint_intptr_bits
683		# define stdint_intptr_glue3_i(a,b,c) a##b##c
684		# define stdint_intptr_glue3(a,b,c) stdint_intptr_glue3_i(a,b,c)
685		# ifndef PRINTF_INTPTR_MODIFIER
686		# define PRINTF_INTPTR_MODIFIER stdint_intptr_glue3(PRINTF_INT,stdint_intptr_bits,_MODIFIER)
687		# endif
688		# ifndef PTRDIFF_MAX
689		# define PTRDIFF_MAX stdint_intptr_glue3(INT,stdint_intptr_bits,_MAX)
690		# endif
691		# ifndef PTRDIFF_MIN
692		# define PTRDIFF_MIN stdint_intptr_glue3(INT,stdint_intptr_bits,_MIN)
693		# endif
694		# ifndef UINTPTR_MAX
695		# define UINTPTR_MAX stdint_intptr_glue3(UINT,stdint_intptr_bits,_MAX)
696		# endif
697		# ifndef INTPTR_MAX
698		# define INTPTR_MAX stdint_intptr_glue3(INT,stdint_intptr_bits,_MAX)
699		# endif
700		# ifndef INTPTR_MIN
701		# define INTPTR_MIN stdint_intptr_glue3(INT,stdint_intptr_bits,_MIN)
702		# endif
703		# ifndef INTPTR_C
704		# define INTPTR_C(x) stdint_intptr_glue3(INT,stdint_intptr_bits,_C)(x)
705		# endif
706		# ifndef UINTPTR_C
707		# define UINTPTR_C(x) stdint_intptr_glue3(UINT,stdint_intptr_bits,_C)(x)
708		# endif
709		typedef stdint_intptr_glue3(uint,stdint_intptr_bits,_t) uintptr_t;
710		typedef stdint_intptr_glue3( int,stdint_intptr_bits,_t) intptr_t;
711		# else
712		/* TODO -- This following is likely wrong for some platforms, and does
713		nothing for the definition of uintptr_t. */
714		typedef ptrdiff_t intptr_t;
715		# endif
716		# define STDINT_H_UINTPTR_T_DEFINED
717		#endif
718
719		/*
720		* Assumes sig_atomic_t is signed and we have a 2s complement machine.
721		*/
722
723		#ifndef SIG_ATOMIC_MAX
724		# define SIG_ATOMIC_MAX ((((sig_atomic_t) 1) << (sizeof (sig_atomic_t)*CHAR_BIT-1)) - 1)
725		#endif
726
727		#endif
728

+448

-304

contrib/clipper/clipper.cpp less more

0	0	/*******************************************************************************
1	1	* *
2	2	* Author : Angus Johnson *
3		* Version : 4.6.3 *
4		* Date : 11 November 2011 *
	3	* Version : 4.8.8 *
	4	* Date : 30 August 2012 *
5	5	* Website : http://www.angusj.com *
6		* Copyright : Angus Johnson 2010-2011 *
	6	* Copyright : Angus Johnson 2010-2012 *
7	7	* *
8	8	* License: *
9	9	* Use, modification & distribution is subject to Boost Software License Ver 1. *

48	48
49	49	namespace ClipperLib {
50	50
51		static long64 const loRange = 1518500249; //sqrt(2^63 -1)/2
52		static long64 const hiRange = 6521908912666391106LL; //sqrt(2^127 -1)/2
	51	static long64 const loRange = 0x3FFFFFFF;
	52	static long64 const hiRange = 0x3FFFFFFFFFFFFFFFLL;
53	53	static double const pi = 3.141592653589793238;
54	54	enum Direction { dRightToLeft, dLeftToRight };
55		enum RangeTest { rtLo, rtHi, rtError };
56	55
57	56	#define HORIZONTAL (-1.0E+40)
58	57	#define TOLERANCE (1.0e-20)

61	60
62	61	inline long64 Abs(long64 val)
63	62	{
64		if (val < 0) return -val; else return val;
	63	return val < 0 ? -val : val;
65	64	}
66	65	//------------------------------------------------------------------------------
67	66

79	78
80	79	Int128(long64 _lo = 0)
81	80	{
82		hi = 0;
83		if (_lo < 0) {
84		lo = -_lo;
85		Negate(*this);
86		} else
87		lo = _lo;
	81	lo = _lo;
	82	if (lo < 0) hi = -1; else hi = 0;
88	83	}
89	84
90	85	Int128(const Int128 &val): hi(val.hi), lo(val.lo){}
91	86
92	87	long64 operator = (const long64 &val)
93	88	{
94		hi = 0;
95		lo = Abs(val);
96		if (val < 0) Negate(*this);
	89	lo = val;
	90	if (lo < 0) hi = -1; else hi = 0;
97	91	return val;
98	92	}
99	93
100	94	bool operator == (const Int128 &val) const
101	95	{return (hi == val.hi && lo == val.lo);}
102	96
103		bool operator != (const Int128 &val) const { return !(*this == val);}
	97	bool operator != (const Int128 &val) const
	98	{ return !(*this == val);}
104	99
105	100	bool operator > (const Int128 &val) const
106	101	{
107		if (hi > val.hi) return true;
108		else if (hi < val.hi) return false;
109		else return ulong64(lo) > ulong64(val.lo);
	102	if (hi != val.hi)
	103	return hi > val.hi;
	104	else
	105	return lo > val.lo;
110	106	}
111	107
112	108	bool operator < (const Int128 &val) const
113	109	{
114		if (hi < val.hi) return true;
115		else if (hi > val.hi) return false;
116		else return ulong64(lo) < ulong64(val.lo);
117		}
	110	if (hi != val.hi)
	111	return hi < val.hi;
	112	else
	113	return lo < val.lo;
	114	}
	115
	116	bool operator >= (const Int128 &val) const
	117	{ return !(*this < val);}
	118
	119	bool operator <= (const Int128 &val) const
	120	{ return !(*this > val);}
118	121
119	122	Int128& operator += (const Int128 &rhs)
120	123	{

139	142	return *this;
140	143	}
141	144
	145	//Int128 operator -() const
	146	//{
	147	// Int128 result(*this);
	148	// if (result.lo == 0) {
	149	// if (result.hi != 0) result.hi = -1;
	150	// }
	151	// else {
	152	// result.lo = -result.lo;
	153	// result.hi = ~result.hi;
	154	// }
	155	// return result;
	156	//}
	157
142	158	Int128 operator - (const Int128 &rhs) const
143	159	{
144	160	Int128 result(*this);
145		result-= rhs;
	161	result -= rhs;
146	162	return result;
147	163	}
148	164
149		Int128 operator * (const Int128 &rhs) const {
	165	Int128 operator * (const Int128 &rhs) const
	166	{
150	167	if ( !(hi == 0 \|\| hi == -1) \|\| !(rhs.hi == 0 \|\| rhs.hi == -1))
151	168	throw "Int128 operator*: overflow error";
152	169	bool negate = (hi < 0) != (rhs.hi < 0);

224	241	}
225	242
226	243	//for bug testing ...
227		std::string AsString() const
228		{
229		std::string result;
230		unsigned char r = 0;
231		Int128 tmp(0), val(*this);
232		if (hi < 0) Negate(val);
233		result.resize(50);
234		std::string::size_type i = result.size() -1;
235		while (val.hi != 0 \|\| val.lo != 0)
236		{
237		Div10(val, tmp, r);
238		result[i--] = char('0' + r);
239		val = tmp;
240		}
241		if (hi < 0) result[i--] = '-';
242		result.erase(0,i+1);
243		if (result.size() == 0) result = "0";
244		return result;
245		}
	244	//std::string AsString() const
	245	//{
	246	// std::string result;
	247	// unsigned char r = 0;
	248	// Int128 tmp(0), val(*this);
	249	// if (hi < 0) Negate(val);
	250	// result.resize(50);
	251	// std::string::size_type i = result.size() -1;
	252	// while (val.hi != 0 \|\| val.lo != 0)
	253	// {
	254	// Div10(val, tmp, r);
	255	// result[i--] = char('0' + r);
	256	// val = tmp;
	257	// }
	258	// if (hi < 0) result[i--] = '-';
	259	// result.erase(0,i+1);
	260	// if (result.size() == 0) result = "0";
	261	// return result;
	262	//}
246	263
247	264	private:
248	265	long64 hi;

250	267
251	268	static void Negate(Int128 &val)
252	269	{
253		if (val.lo == 0)
254		{
255		if( val.hi == 0) return;
256		val.lo = ~val.lo;
257		val.hi = ~val.hi +1;
	270	if (val.lo == 0) {
	271	if (val.hi != 0) val.hi = -val.hi;;
258	272	}
259		else
260		{
261		val.lo = ~val.lo +1;
	273	else {
	274	val.lo = -val.lo;
262	275	val.hi = ~val.hi;
263	276	}
264	277	}
265	278
266	279	//debugging only ...
267		void Div10(const Int128 val, Int128& result, unsigned char & remainder) const
268		{
269		remainder = 0;
270		result = 0;
271		for (int i = 63; i >= 0; --i)
272		{
273		if ((val.hi & ((long64)1 << i)) != 0)
274		remainder = char((remainder * 2) + 1); else
275		remainder *= char(2);
276		if (remainder >= 10)
277		{
278		result.hi += ((long64)1 << i);
279		remainder -= char(10);
280		}
281		}
282		for (int i = 63; i >= 0; --i)
283		{
284		if ((val.lo & ((long64)1 << i)) != 0)
285		remainder = char((remainder * 2) + 1); else
286		remainder *= char(2);
287		if (remainder >= 10)
288		{
289		result.lo += ((long64)1 << i);
290		remainder -= char(10);
291		}
292		}
293		}
	280	//void Div10(const Int128 val, Int128& result, unsigned char & remainder) const
	281	//{
	282	// remainder = 0;
	283	// result = 0;
	284	// for (int i = 63; i >= 0; --i)
	285	// {
	286	// if ((val.hi & ((long64)1 << i)) != 0)
	287	// remainder = char((remainder * 2) + 1); else
	288	// remainder *= char(2);
	289	// if (remainder >= 10)
	290	// {
	291	// result.hi += ((long64)1 << i);
	292	// remainder -= char(10);
	293	// }
	294	// }
	295	// for (int i = 63; i >= 0; --i)
	296	// {
	297	// if ((val.lo & ((long64)1 << i)) != 0)
	298	// remainder = char((remainder * 2) + 1); else
	299	// remainder *= char(2);
	300	// if (remainder >= 10)
	301	// {
	302	// result.lo += ((long64)1 << i);
	303	// remainder -= char(10);
	304	// }
	305	// }
	306	//}
294	307	};
295	308
296	309	//------------------------------------------------------------------------------
297	310	//------------------------------------------------------------------------------
298	311
299		RangeTest TestRange(const Polygon &pts)
300		{
301		RangeTest result = rtLo;
	312	bool FullRangeNeeded(const Polygon &pts)
	313	{
	314	bool result = false;
302	315	for (Polygon::size_type i = 0; i < pts.size(); ++i)
303	316	{
304	317	if (Abs(pts[i].X) > hiRange \|\| Abs(pts[i].Y) > hiRange)
305		return rtError;
	318	throw "Coordinate exceeds range bounds.";
306	319	else if (Abs(pts[i].X) > loRange \|\| Abs(pts[i].Y) > loRange)
307		result = rtHi;
	320	result = true;
308	321	}
309	322	return result;
310	323	}
311	324	//------------------------------------------------------------------------------
312
	325
313	326	bool Orientation(const Polygon &poly)
314	327	{
315	328	int highI = (int)poly.size() -1;
316	329	if (highI < 2) return false;
317		bool UseFullInt64Range = false;
318	330
319	331	int j = 0, jplus, jminus;
320	332	for (int i = 0; i <= highI; ++i)
321	333	{
322		if (Abs(poly[i].X) > hiRange \|\| Abs(poly[i].Y) > hiRange)
323		throw "Coordinate exceeds range bounds.";
324		if (Abs(poly[i].X) > loRange \|\| Abs(poly[i].Y) > loRange)
325		UseFullInt64Range = true;
326	334	if (poly[i].Y < poly[j].Y) continue;
327	335	if ((poly[i].Y > poly[j].Y \|\| poly[i].X < poly[j].X)) j = i;
328	336	};

338	346	vec2.X = poly[jplus].X - poly[j].X;
339	347	vec2.Y = poly[jplus].Y - poly[j].Y;
340	348
341		if (UseFullInt64Range)
342		{
	349	if (Abs(vec1.X) > loRange \|\| Abs(vec1.Y) > loRange \|\|
	350	Abs(vec2.X) > loRange \|\| Abs(vec2.Y) > loRange)
	351	{
	352	if (Abs(vec1.X) > hiRange \|\| Abs(vec1.Y) > hiRange \|\|
	353	Abs(vec2.X) > hiRange \|\| Abs(vec2.Y) > hiRange)
	354	throw "Coordinate exceeds range bounds.";
343	355	Int128 cross = Int128(vec1.X) * Int128(vec2.Y) -
344	356	Int128(vec2.X) * Int128(vec1.Y);
345		return cross > 0;
	357	return cross >= 0;
346	358	}
347	359	else
348		{
349		return (vec1.X * vec2.Y - vec2.X * vec1.Y) > 0;
350		}
	360	return (vec1.X * vec2.Y - vec2.X * vec1.Y) >= 0;
	361	}
	362	//------------------------------------------------------------------------------
	363
	364	inline bool PointsEqual( const IntPoint &pt1, const IntPoint &pt2)
	365	{
	366	return ( pt1.X == pt2.X && pt1.Y == pt2.Y );
351	367	}
352	368	//------------------------------------------------------------------------------
353	369
354	370	bool Orientation(OutRec *outRec, bool UseFullInt64Range)
355	371	{
	372	//first make sure bottomPt is correctly assigned ...
356	373	OutPt opBottom = outRec->pts, op = outRec->pts->next;
357	374	while (op != outRec->pts)
358	375	{

363	380	}
364	381	op = op->next;
365	382	}
366
367		IntPoint vec1, vec2;
368		vec1.X = op->pt.X - op->prev->pt.X;
369		vec1.Y = op->pt.Y - op->prev->pt.Y;
370		vec2.X = op->next->pt.X - op->pt.X;
371		vec2.Y = op->next->pt.Y - op->pt.Y;
	383	outRec->bottomPt = opBottom;
	384	opBottom->idx = outRec->idx;
	385
	386	op = opBottom;
	387	//find vertices either side of bottomPt (skipping duplicate points) ....
	388	OutPt *opPrev = op->prev;
	389	OutPt *opNext = op->next;
	390	while (op != opPrev && PointsEqual(op->pt, opPrev->pt))
	391	opPrev = opPrev->prev;
	392	while (op != opNext && PointsEqual(op->pt, opNext->pt))
	393	opNext = opNext->next;
	394
	395	IntPoint ip1, ip2;
	396	ip1.X = op->pt.X - opPrev->pt.X;
	397	ip1.Y = op->pt.Y - opPrev->pt.Y;
	398	ip2.X = opNext->pt.X - op->pt.X;
	399	ip2.Y = opNext->pt.Y - op->pt.Y;
372	400
373	401	if (UseFullInt64Range)
374		{
375		Int128 cross = Int128(vec1.X) * Int128(vec2.Y) - Int128(vec2.X) * Int128(vec1.Y);
376		return cross > 0;
377		}
	402	return Int128(ip1.X) * Int128(ip2.Y) - Int128(ip2.X) * Int128(ip1.Y) >= 0;
378	403	else
379		{
380		return (vec1.X * vec2.Y - vec2.X * vec1.Y) > 0;
381		}
382		}
383		//------------------------------------------------------------------------------
384
385		inline bool PointsEqual( const IntPoint &pt1, const IntPoint &pt2)
386		{
387		return ( pt1.X == pt2.X && pt1.Y == pt2.Y );
	404	return (ip1.X * ip2.Y - ip2.X * ip1.Y) >= 0;
388	405	}
389	406	//------------------------------------------------------------------------------
390	407

392	409	{
393	410	int highI = (int)poly.size() -1;
394	411	if (highI < 2) return 0;
395		bool UseFullInt64Range;
396		RangeTest rt = TestRange(poly);
397		switch (rt) {
398		case rtLo:
399		UseFullInt64Range = false;
400		break;
401		case rtHi:
402		UseFullInt64Range = true;
403		break;
404		default:
405		throw "Coordinate exceeds range bounds.";
406		}
407
408		if (UseFullInt64Range) {
409		Int128 a(0);
	412
	413	if (FullRangeNeeded(poly)) {
	414	Int128 a;
410	415	a = (Int128(poly[highI].X) * Int128(poly[0].Y)) -
411	416	Int128(poly[0].X) * Int128(poly[highI].Y);
412	417	for (int i = 0; i < highI; ++i)

425	430	}
426	431	//------------------------------------------------------------------------------
427	432
	433	double Area(const OutRec &outRec, bool UseFullInt64Range)
	434	{
	435	OutPt *op = outRec.pts;
	436	if (UseFullInt64Range) {
	437	Int128 a(0);
	438	do {
	439	a += (Int128(op->prev->pt.X) * Int128(op->pt.Y)) -
	440	Int128(op->pt.X) * Int128(op->prev->pt.Y);
	441	op = op->next;
	442	} while (op != outRec.pts);
	443	return a.AsDouble() / 2;
	444	}
	445	else
	446	{
	447	double a = 0;
	448	do {
	449	a += (op->prev->pt.X * op->pt.Y) - (op->pt.X * op->prev->pt.Y);
	450	op = op->next;
	451	} while (op != outRec.pts);
	452	return a/2;
	453	}
	454	}
	455	//------------------------------------------------------------------------------
	456
428	457	bool PointIsVertex(const IntPoint &pt, OutPt *pp)
429	458	{
430	459	OutPt *pp2 = pp;

472	501
473	502	bool SlopesEqual(TEdge &e1, TEdge &e2, bool UseFullInt64Range)
474	503	{
475		if (e1.ybot == e1.ytop) return (e2.ybot == e2.ytop);
476		else if (e1.xbot == e1.xtop) return (e2.xbot == e2.xtop);
477		else if (UseFullInt64Range)
	504	if (UseFullInt64Range)
478	505	return Int128(e1.ytop - e1.ybot) * Int128(e2.xtop - e2.xbot) ==
479	506	Int128(e1.xtop - e1.xbot) * Int128(e2.ytop - e2.ybot);
480	507	else return (e1.ytop - e1.ybot)*(e2.xtop - e2.xbot) ==

485	512	bool SlopesEqual(const IntPoint pt1, const IntPoint pt2,
486	513	const IntPoint pt3, bool UseFullInt64Range)
487	514	{
488		if (pt1.Y == pt2.Y) return (pt2.Y == pt3.Y);
489		else if (pt1.X == pt2.X) return (pt2.X == pt3.X);
490		else if (UseFullInt64Range)
	515	if (UseFullInt64Range)
491	516	return Int128(pt1.Y-pt2.Y) * Int128(pt2.X-pt3.X) ==
492	517	Int128(pt1.X-pt2.X) * Int128(pt2.Y-pt3.Y);
493	518	else return (pt1.Y-pt2.Y)(pt2.X-pt3.X) == (pt1.X-pt2.X)(pt2.Y-pt3.Y);

497	522	bool SlopesEqual(const IntPoint pt1, const IntPoint pt2,
498	523	const IntPoint pt3, const IntPoint pt4, bool UseFullInt64Range)
499	524	{
500		if (pt1.Y == pt2.Y) return (pt3.Y == pt4.Y);
501		else if (pt1.X == pt2.X) return (pt3.X == pt4.X);
502		else if (UseFullInt64Range)
	525	if (UseFullInt64Range)
503	526	return Int128(pt1.Y-pt2.Y) * Int128(pt3.X-pt4.X) ==
504	527	Int128(pt1.X-pt2.X) * Int128(pt3.Y-pt4.Y);
505	528	else return (pt1.Y-pt2.Y)(pt3.X-pt4.X) == (pt1.X-pt2.X)(pt3.Y-pt4.Y);

508	531
509	532	double GetDx(const IntPoint pt1, const IntPoint pt2)
510	533	{
511		if (pt1.Y == pt2.Y) return HORIZONTAL;
512		else return
513		(double)(pt2.X - pt1.X) / (double)(pt2.Y - pt1.Y);
	534	return (pt1.Y == pt2.Y) ?
	535	HORIZONTAL : (double)(pt2.X - pt1.X) / (double)(pt2.Y - pt1.Y);
514	536	}
515	537	//---------------------------------------------------------------------------
516	538
517	539	void SetDx(TEdge &e)
518	540	{
519	541	if (e.ybot == e.ytop) e.dx = HORIZONTAL;
520		else e.dx =
521		(double)(e.xtop - e.xbot) / (double)(e.ytop - e.ybot);
	542	else e.dx = (double)(e.xtop - e.xbot) / (double)(e.ytop - e.ybot);
522	543	}
523	544	//---------------------------------------------------------------------------
524	545

540	561
541	562	inline long64 Round(double val)
542	563	{
543		if ((val < 0)) return static_cast<long64>(val - 0.5);
544		else return static_cast<long64>(val + 0.5);
	564	return (val < 0) ?
	565	static_cast<long64>(val - 0.5) : static_cast<long64>(val + 0.5);
545	566	}
546	567	//------------------------------------------------------------------------------
547	568
548	569	long64 TopX(TEdge &edge, const long64 currentY)
549	570	{
550		if( currentY == edge.ytop ) return edge.xtop;
551		return edge.xbot + Round(edge.dx *(currentY - edge.ybot));
	571	return ( currentY == edge.ytop ) ?
	572	edge.xtop : edge.xbot + Round(edge.dx *(currentY - edge.ybot));
552	573	}
553	574	//------------------------------------------------------------------------------
554	575

708	729	}
709	730	//------------------------------------------------------------------------------
710	731
711		OutPt* PolygonBottom(OutPt* pp)
712		{
	732	bool FirstIsBottomPt(const OutPt* btmPt1, const OutPt* btmPt2)
	733	{
	734	OutPt *p = btmPt1->prev;
	735	while (PointsEqual(p->pt, btmPt1->pt) && (p != btmPt1)) p = p->prev;
	736	double dx1p = std::fabs(GetDx(btmPt1->pt, p->pt));
	737	p = btmPt1->next;
	738	while (PointsEqual(p->pt, btmPt1->pt) && (p != btmPt1)) p = p->next;
	739	double dx1n = std::fabs(GetDx(btmPt1->pt, p->pt));
	740
	741	p = btmPt2->prev;
	742	while (PointsEqual(p->pt, btmPt2->pt) && (p != btmPt2)) p = p->prev;
	743	double dx2p = std::fabs(GetDx(btmPt2->pt, p->pt));
	744	p = btmPt2->next;
	745	while (PointsEqual(p->pt, btmPt2->pt) && (p != btmPt2)) p = p->next;
	746	double dx2n = std::fabs(GetDx(btmPt2->pt, p->pt));
	747	return (dx1p >= dx2p && dx1p >= dx2n) \|\| (dx1n >= dx2p && dx1n >= dx2n);
	748	}
	749	//------------------------------------------------------------------------------
	750
	751	OutPt* GetBottomPt(OutPt *pp)
	752	{
	753	OutPt* dups = 0;
713	754	OutPt* p = pp->next;
714		OutPt* result = pp;
715	755	while (p != pp)
716	756	{
717		if (p->pt.Y > result->pt.Y) result = p;
718		else if (p->pt.Y == result->pt.Y && p->pt.X < result->pt.X) result = p;
	757	if (p->pt.Y > pp->pt.Y)
	758	{
	759	pp = p;
	760	dups = 0;
	761	}
	762	else if (p->pt.Y == pp->pt.Y && p->pt.X <= pp->pt.X)
	763	{
	764	if (p->pt.X < pp->pt.X)
	765	{
	766	dups = 0;
	767	pp = p;
	768	} else
	769	{
	770	if (p->next != pp && p->prev != pp) dups = p;
	771	}
	772	}
719	773	p = p->next;
720	774	}
721		return result;
	775	if (dups)
	776	{
	777	//there appears to be at least 2 vertices at bottomPt so ...
	778	while (dups != p)
	779	{
	780	if (!FirstIsBottomPt(p, dups)) pp = dups;
	781	dups = dups->next;
	782	while (!PointsEqual(dups->pt, pp->pt)) dups = dups->next;
	783	}
	784	}
	785	return pp;
722	786	}
723	787	//------------------------------------------------------------------------------
724	788

804	868	{
805	869	if (Abs(pg[i].X) > maxVal \|\| Abs(pg[i].Y) > maxVal)
806	870	{
807		if (m_UseFullRange)
	871	if (Abs(pg[i].X) > hiRange \|\| Abs(pg[i].Y) > hiRange)
808	872	throw "Coordinate exceeds range bounds";
809	873	maxVal = hiRange;
810		if (Abs(pg[i].X) > maxVal \|\| Abs(pg[i].Y) > maxVal)
811		throw "Coordinate exceeds range bounds";
812	874	m_UseFullRange = true;
813	875	}
814	876

822	884	if (j < 2) return false;
823	885
824	886	len = j+1;
825		for (;;)
	887	while (len > 2)
826	888	{
827	889	//nb: test for point equality before testing slopes ...
828	890	if (PointsEqual(p[j], p[0])) j--;

835	897	for (int i = 2; i <= j; ++i) p[i-1] = p[i];
836	898	j--;
837	899	}
838		//exit loop if nothing is changed or there are too few vertices ...
839		if (j == len-1 \|\| j < 2) break;
840		len = j +1;
	900	else break;
	901	len--;
841	902	}
842	903	if (len < 3) return false;
843	904

960	1021
961	1022	bool ClipperBase::AddPolygons(const Polygons &ppg, PolyType polyType)
962	1023	{
963		bool result = true;
	1024	bool result = false;
964	1025	for (Polygons::size_type i = 0; i < ppg.size(); ++i)
965		if (AddPolygon(ppg[i], polyType)) result = false;
	1026	if (AddPolygon(ppg[i], polyType)) result = true;
966	1027	return result;
967	1028	}
968	1029	//------------------------------------------------------------------------------

1115	1176	m_Scanbeam = 0;
1116	1177	m_ActiveEdges = 0;
1117	1178	m_SortedEdges = 0;
	1179	DisposeAllPolyPts();
1118	1180	LocalMinima* lm = m_MinimaList;
1119	1181	while (lm)
1120	1182	{

1164	1226	{
1165	1227	if (or1->pts != or2->pts)
1166	1228	{
1167		if (or1->pts) return true; else return false;
	1229	return or1->pts ? true : false;
1168	1230	}
1169	1231	else return false;
1170	1232	}

1178	1240	int result = i1 - i2;
1179	1241	if (result == 0 && (or1->isHole != or2->isHole))
1180	1242	{
1181		if (or1->isHole) return false;
1182		else return true;
	1243	return or1->isHole ? false : true;
1183	1244	}
1184	1245	else return result < 0;
1185	1246	}

1249	1310	FixupOutPolygon(*outRec);
1250	1311	if (!outRec->pts) continue;
1251	1312	if (outRec->isHole && fixHoleLinkages) FixHoleLinkage(outRec);
	1313
	1314	if (outRec->bottomPt == outRec->bottomFlag &&
	1315	(Orientation(outRec, m_UseFullRange) != (Area(*outRec, m_UseFullRange) > 0)))
	1316	DisposeBottomPt(*outRec);
	1317
1252	1318	if (outRec->isHole ==
1253	1319	(m_ReverseOutput ^ Orientation(outRec, m_UseFullRange)))
1254	1320	ReversePolyPtLinks(*outRec->pts);

1309	1375	}
1310	1376	//------------------------------------------------------------------------------
1311	1377
1312		void Clipper::DisposeOutRec(PolyOutList::size_type index, bool ignorePts)
	1378	void Clipper::DisposeOutRec(PolyOutList::size_type index)
1313	1379	{
1314	1380	OutRec *outRec = m_PolyOuts[index];
1315		if (!ignorePts && outRec->pts) DisposeOutPts(outRec->pts);
	1381	if (outRec->pts) DisposeOutPts(outRec->pts);
1316	1382	delete outRec;
1317	1383	m_PolyOuts[index] = 0;
1318	1384	}

1475	1541
1476	1542	void Clipper::AddLocalMinPoly(TEdge e1, TEdge e2, const IntPoint &pt)
1477	1543	{
	1544	TEdge e, prevE;
1478	1545	if( NEAR_EQUAL(e2->dx, HORIZONTAL) \|\| ( e1->dx > e2->dx ) )
1479	1546	{
1480		AddOutPt( e1, e2, pt );
	1547	AddOutPt( e1, pt );
1481	1548	e2->outIdx = e1->outIdx;
1482	1549	e1->side = esLeft;
1483	1550	e2->side = esRight;
	1551	e = e1;
	1552	if (e->prevInAEL == e2)
	1553	prevE = e2->prevInAEL;
	1554	else
	1555	prevE = e->prevInAEL;
1484	1556	} else
1485	1557	{
1486		AddOutPt( e2, e1, pt );
	1558	AddOutPt( e2, pt );
1487	1559	e1->outIdx = e2->outIdx;
1488	1560	e1->side = esRight;
1489	1561	e2->side = esLeft;
1490		}
	1562	e = e2;
	1563	if (e->prevInAEL == e1)
	1564	prevE = e1->prevInAEL;
	1565	else
	1566	prevE = e->prevInAEL;
	1567	}
	1568	if (prevE && prevE->outIdx >= 0 &&
	1569	(TopX(prevE, pt.Y) == TopX(e, pt.Y)) &&
	1570	SlopesEqual(e, prevE, m_UseFullRange))
	1571	AddJoin(e, prevE, -1, -1);
1491	1572	}
1492	1573	//------------------------------------------------------------------------------
1493	1574
1494	1575	void Clipper::AddLocalMaxPoly(TEdge e1, TEdge e2, const IntPoint &pt)
1495	1576	{
1496		AddOutPt( e1, 0, pt );
	1577	AddOutPt( e1, pt );
1497	1578	if( e1->outIdx == e2->outIdx )
1498	1579	{
1499	1580	e1->outIdx = -1;
1500	1581	e2->outIdx = -1;
1501	1582	}
1502		else
1503		AppendPolygon( e1, e2 );
	1583	else if (e1->outIdx < e2->outIdx)
	1584	AppendPolygon(e1, e2);
	1585	else
	1586	AppendPolygon(e2, e1);
1504	1587	}
1505	1588	//------------------------------------------------------------------------------
1506	1589

1618	1701
1619	1702	if( IsContributing(*lb) )
1620	1703	AddLocalMinPoly( lb, rb, IntPoint(lb->xcurr, m_CurrentLM->Y) );
1621
1622		//if output polygons share an edge, they'll need joining later ...
1623		if (lb->outIdx >= 0 && lb->prevInAEL &&
1624		lb->prevInAEL->outIdx >= 0 && lb->prevInAEL->xcurr == lb->xbot &&
1625		SlopesEqual(lb, lb->prevInAEL, m_UseFullRange))
1626		AddJoin(lb, lb->prevInAEL);
1627	1704
1628	1705	//if any output polygons share an edge, they'll need joining later ...
1629	1706	if (rb->outIdx >= 0)

1817	1894	AddLocalMinPoly(e1, e2, pt);
1818	1895	break;
1819	1896	case ctDifference:
1820		if ((e1->polyType == ptClip && e2->polyType == ptClip &&
1821		e1Wc2 > 0 && e2Wc2 > 0) \|\|
1822		(e1->polyType == ptSubject && e2->polyType == ptSubject &&
1823		e1Wc2 <= 0 && e2Wc2 <= 0))
	1897	if (((e1->polyType == ptClip) && (e1Wc2 > 0) && (e2Wc2 > 0)) \|\|
	1898	((e1->polyType == ptSubject) && (e1Wc2 <= 0) && (e2Wc2 <= 0)))
1824	1899	AddLocalMinPoly(e1, e2, pt);
1825	1900	break;
1826	1901	case ctXor:

1861	1936	}
1862	1937	//------------------------------------------------------------------------------
1863	1938
1864		bool GetNextNonDupOutPt(OutPt* pp, OutPt*& next)
1865		{
1866		next = pp->next;
1867		while (next != pp && PointsEqual(pp->pt, next->pt))
1868		next = next->next;
1869		return next != pp;
1870		}
1871		//------------------------------------------------------------------------------
1872
1873		bool GetPrevNonDupOutPt(OutPt* pp, OutPt*& prev)
1874		{
1875		prev = pp->prev;
1876		while (prev != pp && PointsEqual(pp->pt, prev->pt))
1877		prev = prev->prev;
1878		return prev != pp;
1879		}
1880		//------------------------------------------------------------------------------
1881
1882	1939	OutRec* GetLowermostRec(OutRec outRec1, OutRec outRec2)
1883	1940	{
1884	1941	//work out which polygon fragment has the correct hole state ...

1888	1945	else if (outPt1->pt.Y < outPt2->pt.Y) return outRec2;
1889	1946	else if (outPt1->pt.X < outPt2->pt.X) return outRec1;
1890	1947	else if (outPt1->pt.X > outPt2->pt.X) return outRec2;
1891		else if (outRec1->bottomE2 == 0) return outRec2;
1892		else if (outRec2->bottomE2 == 0) return outRec1;
1893		else
1894		{
1895		long64 y1 = std::max(outRec1->bottomE1->ybot, outRec1->bottomE2->ybot);
1896		long64 y2 = std::max(outRec2->bottomE1->ybot, outRec2->bottomE2->ybot);
1897		if (y2 == y1 \|\| (y1 > outPt1->pt.Y && y2 > outPt1->pt.Y))
1898		{
1899		double dx1 = std::max(outRec1->bottomE1->dx, outRec1->bottomE2->dx);
1900		double dx2 = std::max(outRec2->bottomE1->dx, outRec2->bottomE2->dx);
1901		if (dx2 > dx1) return outRec2; else return outRec1;
1902		}
1903		else if (y2 > y1) return outRec2;
1904		else return outRec1;
1905		}
	1948	else if (outPt1->next == outPt1) return outRec2;
	1949	else if (outPt2->next == outPt2) return outRec1;
	1950	else if (FirstIsBottomPt(outPt1, outPt2)) return outRec1;
	1951	else return outRec2;
	1952	}
	1953	//------------------------------------------------------------------------------
	1954
	1955	bool Param1RightOfParam2(OutRec* outRec1, OutRec* outRec2)
	1956	{
	1957	do
	1958	{
	1959	outRec1 = outRec1->FirstLeft;
	1960	if (outRec1 == outRec2) return true;
	1961	} while (outRec1);
	1962	return false;
1906	1963	}
1907	1964	//------------------------------------------------------------------------------
1908	1965

1911	1968	//get the start and ends of both output polygons ...
1912	1969	OutRec *outRec1 = m_PolyOuts[e1->outIdx];
1913	1970	OutRec *outRec2 = m_PolyOuts[e2->outIdx];
1914		OutRec *holeStateRec = GetLowermostRec(outRec1, outRec2);
1915
1916		//fixup hole status ...
1917		if (holeStateRec == outRec2)
1918		outRec1->isHole = outRec2->isHole;
1919		else
1920		outRec2->isHole = outRec1->isHole;
	1971
	1972	OutRec *holeStateRec;
	1973	if (Param1RightOfParam2(outRec1, outRec2)) holeStateRec = outRec2;
	1974	else if (Param1RightOfParam2(outRec2, outRec1)) holeStateRec = outRec1;
	1975	else holeStateRec = GetLowermostRec(outRec1, outRec2);
1921	1976
1922	1977	OutPt* p1_lft = outRec1->pts;
1923	1978	OutPt* p1_rt = p1_lft->prev;

1972	2027	{
1973	2028	outRec1->bottomPt = outRec2->bottomPt;
1974	2029	outRec1->bottomPt->idx = outRec1->idx;
1975		outRec1->bottomE1 = outRec2->bottomE1;
1976		outRec1->bottomE2 = outRec2->bottomE2;
1977
1978	2030	if (outRec2->FirstLeft != outRec1)
1979	2031	outRec1->FirstLeft = outRec2->FirstLeft;
	2032	outRec1->isHole = outRec2->isHole;
1980	2033	}
1981	2034	outRec2->pts = 0;
1982	2035	outRec2->bottomPt = 0;

2022	2075	result->AppendLink = 0;
2023	2076	result->pts = 0;
2024	2077	result->bottomPt = 0;
	2078	result->sides = esNeither;
	2079	result->bottomFlag = 0;
	2080
2025	2081	return result;
2026	2082	}
2027	2083	//------------------------------------------------------------------------------
2028	2084
2029		void Clipper::AddOutPt(TEdge e, TEdge altE, const IntPoint &pt)
	2085	void Clipper::DisposeBottomPt(OutRec &outRec)
	2086	{
	2087	OutPt* next = outRec.bottomPt->next;
	2088	OutPt* prev = outRec.bottomPt->prev;
	2089	if (outRec.pts == outRec.bottomPt) outRec.pts = next;
	2090	delete outRec.bottomPt;
	2091	next->prev = prev;
	2092	prev->next = next;
	2093	outRec.bottomPt = next;
	2094	FixupOutPolygon(outRec);
	2095	}
	2096	//------------------------------------------------------------------------------
	2097
	2098	void Clipper::AddOutPt(TEdge *e, const IntPoint &pt)
2030	2099	{
2031	2100	bool ToFront = (e->side == esLeft);
2032	2101	if( e->outIdx < 0 )

2037	2106	e->outIdx = outRec->idx;
2038	2107	OutPt* op = new OutPt;
2039	2108	outRec->pts = op;
2040		outRec->bottomE1 = e;
2041		outRec->bottomE2 = altE;
2042	2109	outRec->bottomPt = op;
2043	2110	op->pt = pt;
2044	2111	op->idx = outRec->idx;

2051	2118	OutPt* op = outRec->pts;
2052	2119	if ((ToFront && PointsEqual(pt, op->pt)) \|\|
2053	2120	(!ToFront && PointsEqual(pt, op->prev->pt))) return;
	2121
	2122	if ((e->side \| outRec->sides) != outRec->sides)
	2123	{
	2124	//check for 'rounding' artefacts ...
	2125	if (outRec->sides == esNeither && pt.Y == op->pt.Y)
	2126	if (ToFront)
	2127	{
	2128	if (pt.X == op->pt.X +1) return; //ie wrong side of bottomPt
	2129	}
	2130	else if (pt.X == op->pt.X -1) return; //ie wrong side of bottomPt
	2131
	2132	outRec->sides = (EdgeSide)(outRec->sides \| e->side);
	2133	if (outRec->sides == esBoth)
	2134	{
	2135	//A vertex from each side has now been added.
	2136	//Vertices of one side of an output polygon are quite commonly close to
	2137	//or even 'touching' edges of the other side of the output polygon.
	2138	//Very occasionally vertices from one side can 'cross' an edge on the
	2139	//the other side. The distance 'crossed' is always less that a unit
	2140	//and is purely an artefact of coordinate rounding. Nevertheless, this
	2141	//results in very tiny self-intersections. Because of the way
	2142	//orientation is calculated, even tiny self-intersections can cause
	2143	//the Orientation function to return the wrong result. Therefore, it's
	2144	//important to ensure that any self-intersections close to BottomPt are
	2145	//detected and removed before orientation is assigned.
	2146
	2147	OutPt opBot, op2;
	2148	if (ToFront)
	2149	{
	2150	opBot = outRec->pts;
	2151	op2 = opBot->next; //op2 == right side
	2152	if (opBot->pt.Y != op2->pt.Y && opBot->pt.Y != pt.Y &&
	2153	((opBot->pt.X - pt.X)/(opBot->pt.Y - pt.Y) <
	2154	(opBot->pt.X - op2->pt.X)/(opBot->pt.Y - op2->pt.Y)))
	2155	outRec->bottomFlag = opBot;
	2156	} else
	2157	{
	2158	opBot = outRec->pts->prev;
	2159	op2 = opBot->prev; //op2 == left side
	2160	if (opBot->pt.Y != op2->pt.Y && opBot->pt.Y != pt.Y &&
	2161	((opBot->pt.X - pt.X)/(opBot->pt.Y - pt.Y) >
	2162	(opBot->pt.X - op2->pt.X)/(opBot->pt.Y - op2->pt.Y)))
	2163	outRec->bottomFlag = opBot;
	2164	}
	2165	}
	2166	}
	2167
2054	2168	OutPt* op2 = new OutPt;
2055	2169	op2->pt = pt;
2056	2170	op2->idx = outRec->idx;
2057	2171	if (op2->pt.Y == outRec->bottomPt->pt.Y &&
2058	2172	op2->pt.X < outRec->bottomPt->pt.X)
2059		{
2060		outRec->bottomPt = op2;
2061		outRec->bottomE1 = e;
2062		outRec->bottomE2 = altE;
2063		}
	2173	outRec->bottomPt = op2;
2064	2174	op2->next = op;
2065	2175	op2->prev = op->prev;
2066	2176	op2->prev->next = op2;

2215	2325
2216	2326	TEdge* GetNextInAEL(TEdge *e, Direction dir)
2217	2327	{
2218		if( dir == dLeftToRight ) return e->nextInAEL;
2219		else return e->prevInAEL;
	2328	return dir == dLeftToRight ? e->nextInAEL : e->prevInAEL;
2220	2329	}
2221	2330	//------------------------------------------------------------------------------
2222	2331

2309	2418	if( horzEdge->nextInLML )
2310	2419	{
2311	2420	if( horzEdge->outIdx >= 0 )
2312		AddOutPt( horzEdge, 0, IntPoint(horzEdge->xtop, horzEdge->ytop));
	2421	AddOutPt( horzEdge, IntPoint(horzEdge->xtop, horzEdge->ytop));
2313	2422	UpdateEdgeIntoAEL( horzEdge );
2314	2423	}
2315	2424	else

2425	2534	}
2426	2535	//------------------------------------------------------------------------------
2427	2536
2428		bool Process1Before2(IntersectNode &node1, IntersectNode &node2)
	2537	bool ProcessParam1BeforeParam2(IntersectNode &node1, IntersectNode &node2)
2429	2538	{
2430	2539	bool result;
2431	2540	if (node1.pt.Y == node2.pt.Y)

2433	2542	if (node1.edge1 == node2.edge1 \|\| node1.edge2 == node2.edge1)
2434	2543	{
2435	2544	result = node2.pt.X > node1.pt.X;
2436		if (node2.edge1->dx > 0) return !result; else return result;
	2545	return node2.edge1->dx > 0 ? !result : result;
2437	2546	}
2438	2547	else if (node1.edge1 == node2.edge2 \|\| node1.edge2 == node2.edge2)
2439	2548	{
2440	2549	result = node2.pt.X > node1.pt.X;
2441		if (node2.edge2->dx > 0) return !result; else return result;
	2550	return node2.edge2->dx > 0 ? !result : result;
2442	2551	}
2443	2552	else return node2.pt.X > node1.pt.X;
2444	2553	}

2454	2563	newNode->pt = pt;
2455	2564	newNode->next = 0;
2456	2565	if( !m_IntersectNodes ) m_IntersectNodes = newNode;
2457		else if( Process1Before2(newNode, m_IntersectNodes) )
	2566	else if( ProcessParam1BeforeParam2(newNode, m_IntersectNodes) )
2458	2567	{
2459	2568	newNode->next = m_IntersectNodes;
2460	2569	m_IntersectNodes = newNode;

2462	2571	else
2463	2572	{
2464	2573	IntersectNode* iNode = m_IntersectNodes;
2465		while( iNode->next && Process1Before2(iNode->next, newNode) )
	2574	while( iNode->next && ProcessParam1BeforeParam2(iNode->next, newNode) )
2466	2575	iNode = iNode->next;
2467	2576	newNode->next = iNode->next;
2468	2577	iNode->next = newNode;

2532	2641	{
2533	2642	if (e->outIdx >= 0)
2534	2643	{
2535		AddOutPt(e, 0, IntPoint(e->xtop, e->ytop));
	2644	AddOutPt(e, IntPoint(e->xtop, e->ytop));
2536	2645
2537	2646	for (HorzJoinList::size_type i = 0; i < m_HorizJoins.size(); ++i)
2538	2647	{

2568	2677	{
2569	2678	if( IsIntermediate( e, topY ) )
2570	2679	{
2571		if( e->outIdx >= 0 ) AddOutPt(e, 0, IntPoint(e->xtop,e->ytop));
	2680	if( e->outIdx >= 0 ) AddOutPt(e, IntPoint(e->xtop,e->ytop));
2572	2681	UpdateEdgeIntoAEL(e);
2573	2682
2574	2683	//if output polygons share an edge, they'll need joining later ...

2578	2687	IntPoint(e->xbot,e->ybot),
2579	2688	IntPoint(e->prevInAEL->xtop, e->prevInAEL->ytop), m_UseFullRange))
2580	2689	{
2581		AddOutPt(e->prevInAEL, 0, IntPoint(e->xbot, e->ybot));
	2690	AddOutPt(e->prevInAEL, IntPoint(e->xbot, e->ybot));
2582	2691	AddJoin(e, e->prevInAEL);
2583	2692	}
2584	2693	else if (e->outIdx >= 0 && e->nextInAEL && e->nextInAEL->outIdx >= 0 &&
2585	2694	e->nextInAEL->ycurr > e->nextInAEL->ytop &&
2586		e->nextInAEL->ycurr < e->nextInAEL->ybot &&
	2695	e->nextInAEL->ycurr <= e->nextInAEL->ybot &&
2587	2696	e->nextInAEL->xcurr == e->xbot && e->nextInAEL->ycurr == e->ybot &&
2588	2697	SlopesEqual(IntPoint(e->xbot,e->ybot), IntPoint(e->xtop, e->ytop),
2589	2698	IntPoint(e->xbot,e->ybot),
2590	2699	IntPoint(e->nextInAEL->xtop, e->nextInAEL->ytop), m_UseFullRange))
2591	2700	{
2592		AddOutPt(e->nextInAEL, 0, IntPoint(e->xbot, e->ybot));
	2701	AddOutPt(e->nextInAEL, IntPoint(e->xbot, e->ybot));
2593	2702	AddJoin(e, e->nextInAEL);
2594	2703	}
2595	2704	}

2622	2731	lastOK = 0;
2623	2732	OutPt *tmp = pp;
2624	2733	if (pp == outRec.bottomPt)
2625		{
2626		if (tmp->prev->pt.Y > tmp->next->pt.Y)
2627		outRec.bottomPt = tmp->prev; else
2628		outRec.bottomPt = tmp->next;
2629		outRec.pts = outRec.bottomPt;
2630		outRec.bottomPt->idx = outRec.idx;
2631		}
	2734	outRec.bottomPt = 0; //flags need for updating
2632	2735	pp->prev->next = pp->next;
2633	2736	pp->next->prev = pp->prev;
2634	2737	pp = pp->prev;

2640	2743	if (!lastOK) lastOK = pp;
2641	2744	pp = pp->next;
2642	2745	}
	2746	}
	2747	if (!outRec.bottomPt) {
	2748	outRec.bottomPt = GetBottomPt(pp);
	2749	outRec.bottomPt->idx = outRec.idx;
	2750	outRec.pts = outRec.bottomPt;
2643	2751	}
2644	2752	}
2645	2753	//------------------------------------------------------------------------------

2765	2873
2766	2874	bool E2InsertsBeforeE1(TEdge &e1, TEdge &e2)
2767	2875	{
2768		if (e2.xcurr == e1.xcurr) return e2.dx > e1.dx;
2769		else return e2.xcurr < e1.xcurr;
	2876	return e2.xcurr == e1.xcurr ? e2.dx > e1.dx : e2.xcurr < e1.xcurr;
2770	2877	}
2771	2878	//------------------------------------------------------------------------------
2772	2879

2798	2905
2799	2906	void Clipper::DoEdge1(TEdge edge1, TEdge edge2, const IntPoint &pt)
2800	2907	{
2801		AddOutPt(edge1, edge2, pt);
	2908	AddOutPt(edge1, pt);
2802	2909	SwapSides(edge1, edge2);
2803	2910	SwapPolyIndexes(edge1, edge2);
2804	2911	}

2806	2913
2807	2914	void Clipper::DoEdge2(TEdge edge1, TEdge edge2, const IntPoint &pt)
2808	2915	{
2809		AddOutPt(edge2, edge1, pt);
	2916	AddOutPt(edge2, pt);
2810	2917	SwapSides(edge1, edge2);
2811	2918	SwapPolyIndexes(edge1, edge2);
2812	2919	}

2814	2921
2815	2922	void Clipper::DoBothEdges(TEdge edge1, TEdge edge2, const IntPoint &pt)
2816	2923	{
2817		AddOutPt(edge1, edge2, pt);
2818		AddOutPt(edge2, edge1, pt);
	2924	AddOutPt(edge1, pt);
	2925	AddOutPt(edge2, pt);
2819	2926	SwapSides( edge1 , edge2 );
2820	2927	SwapPolyIndexes( edge1 , edge2 );
2821	2928	}

2919	3026	{
2920	3027	//instead of joining two polygons, we've just created a new one by
2921	3028	//splitting one polygon into two.
2922		outRec1->pts = PolygonBottom(p1);
	3029	outRec1->pts = GetBottomPt(p1);
2923	3030	outRec1->bottomPt = outRec1->pts;
2924	3031	outRec1->bottomPt->idx = outRec1->idx;
2925	3032	outRec2 = CreateOutRec();
2926	3033	m_PolyOuts.push_back(outRec2);
2927	3034	outRec2->idx = (int)m_PolyOuts.size()-1;
2928	3035	j->poly2Idx = outRec2->idx;
2929		outRec2->pts = PolygonBottom(p2);
	3036	outRec2->pts = GetBottomPt(p2);
2930	3037	outRec2->bottomPt = outRec2->pts;
2931	3038	outRec2->bottomPt->idx = outRec2->idx;
2932	3039
2933	3040	if (PointInPolygon(outRec2->pts->pt, outRec1->pts, m_UseFullRange))
2934	3041	{
	3042	//outRec2 is contained by outRec1 ...
2935	3043	outRec2->isHole = !outRec1->isHole;
2936	3044	outRec2->FirstLeft = outRec1;
2937		if (outRec2->isHole == Orientation(outRec2, m_UseFullRange))
2938		ReversePolyPtLinks(*outRec2->pts);
	3045	if (outRec2->isHole ==
	3046	(m_ReverseOutput ^ Orientation(outRec2, m_UseFullRange)))
	3047	ReversePolyPtLinks(*outRec2->pts);
2939	3048	} else if (PointInPolygon(outRec1->pts->pt, outRec2->pts, m_UseFullRange))
2940	3049	{
	3050	//outRec1 is contained by outRec2 ...
2941	3051	outRec2->isHole = outRec1->isHole;
2942	3052	outRec1->isHole = !outRec2->isHole;
2943	3053	outRec2->FirstLeft = outRec1->FirstLeft;
2944	3054	outRec1->FirstLeft = outRec2;
2945		if (outRec1->isHole == Orientation(outRec1, m_UseFullRange))
2946		ReversePolyPtLinks(*outRec1->pts);
	3055	if (outRec1->isHole ==
	3056	(m_ReverseOutput ^ Orientation(outRec1, m_UseFullRange)))
	3057	ReversePolyPtLinks(*outRec1->pts);
	3058	//make sure any contained holes now link to the correct polygon ...
	3059	if (fixHoleLinkages) CheckHoleLinkages1(outRec1, outRec2);
2947	3060	} else
2948	3061	{
2949	3062	outRec2->isHole = outRec1->isHole;

2965	3078	//now cleanup redundant edges too ...
2966	3079	FixupOutPolygon(*outRec1);
2967	3080	FixupOutPolygon(*outRec2);
	3081
	3082	if (Orientation(outRec1, m_UseFullRange) != (Area(*outRec1, m_UseFullRange) > 0))
	3083	DisposeBottomPt(*outRec1);
	3084	if (Orientation(outRec2, m_UseFullRange) != (Area(*outRec2, m_UseFullRange) > 0))
	3085	DisposeBottomPt(*outRec2);
	3086
2968	3087	} else
2969	3088	{
2970	3089	//joined 2 polygons together ...
2971	3090
2972	3091	//make sure any holes contained by outRec2 now link to outRec1 ...
2973	3092	if (fixHoleLinkages) CheckHoleLinkages2(outRec1, outRec2);
	3093
	3094	//now cleanup redundant edges too ...
	3095	FixupOutPolygon(*outRec1);
	3096
	3097	if (outRec1->pts)
	3098	{
	3099	outRec1->isHole = !Orientation(outRec1, m_UseFullRange);
	3100	if (outRec1->isHole && !outRec1->FirstLeft)
	3101	outRec1->FirstLeft = outRec2->FirstLeft;
	3102	}
2974	3103
2975	3104	//delete the obsolete pointer ...
2976	3105	int OKIdx = outRec1->idx;

2978	3107	outRec2->pts = 0;
2979	3108	outRec2->bottomPt = 0;
2980	3109	outRec2->AppendLink = outRec1;
2981		//holes are practically always joined to outers, not vice versa ...
2982		if (outRec1->isHole && !outRec2->isHole) outRec1->isHole = false;
2983	3110
2984	3111	//now fixup any subsequent Joins that match this polygon
2985	3112	for (JoinList::size_type k = i+1; k < m_Joins.size(); k++)

2988	3115	if (j2->poly1Idx == ObsoleteIdx) j2->poly1Idx = OKIdx;
2989	3116	if (j2->poly2Idx == ObsoleteIdx) j2->poly2Idx = OKIdx;
2990	3117	}
2991
2992		//now cleanup redundant edges too ...
2993		if (outRec1->pts)
2994		FixupOutPolygon(*outRec1);
2995		else
2996		FixupOutPolygon(*outRec2);
2997		}
2998		}
2999		}
3000		//------------------------------------------------------------------------------
3001
3002		void ReversePoints(Polygon& p)
	3118	}
	3119	}
	3120	}
	3121	//------------------------------------------------------------------------------
	3122
	3123	void ReversePolygon(Polygon& p)
3003	3124	{
3004	3125	std::reverse(p.begin(), p.end());
3005	3126	}
3006	3127	//------------------------------------------------------------------------------
3007	3128
3008		void ReversePoints(Polygons& p)
	3129	void ReversePolygons(Polygons& p)
3009	3130	{
3010	3131	for (Polygons::size_type i = 0; i < p.size(); ++i)
3011		ReversePoints(p[i]);
	3132	ReversePolygon(p[i]);
3012	3133	}
3013	3134
3014	3135	//------------------------------------------------------------------------------

3026	3147	Polygon BuildArc(const IntPoint &pt,
3027	3148	const double a1, const double a2, const double r)
3028	3149	{
3029		int steps = std::max(6, int(std::sqrt(std::fabs(r)) * std::fabs(a2 - a1)));
3030		Polygon result(steps);
3031		int n = steps - 1;
3032		double da = (a2 - a1) / n;
	3150	long64 steps = std::max(6, int(std::sqrt(std::fabs(r)) * std::fabs(a2 - a1)));
	3151	if (steps > 0x100000) steps = 0x100000;
	3152	int n = (unsigned)steps;
	3153	Polygon result(n);
	3154	double da = (a2 - a1) / (n -1);
3033	3155	double a = a1;
3034		for (int i = 0; i <= n; ++i)
	3156	for (int i = 0; i < n; ++i)
3035	3157	{
3036	3158	result[i].X = pt.X + Round(std::cos(a)*r);
3037	3159	result[i].Y = pt.Y + Round(std::sin(a)*r);

3159	3281	if (clpr.Execute(ctUnion, out_polys, pftNegative, pftNegative))
3160	3282	{
3161	3283	out_polys.erase(out_polys.begin());
3162		ReversePoints(out_polys);
	3284	ReversePolygons(out_polys);
3163	3285
3164	3286	} else
3165	3287	out_polys.clear();

3186	3308	(long64)Round(m_p[m_i][m_j].Y + normals[m_j].Y * m_delta));
3187	3309	if ((normals[m_k].X * normals[m_j].Y - normals[m_j].X * normals[m_k].Y) * m_delta >= 0)
3188	3310	{
3189		double a1 = std::atan2(normals[m_k].Y, normals[m_k].X);
3190		double a2 = std::atan2(-normals[m_j].Y, -normals[m_j].X);
3191		a1 = std::fabs(a2 - a1);
3192		if (a1 > pi) a1 = pi * 2 - a1;
3193		double dx = std::tan((pi - a1)/4) * std::fabs(m_delta * mul);
3194		pt1 = IntPoint((long64)(pt1.X -normals[m_k].Y * dx),
3195		(long64)(pt1.Y + normals[m_k].X * dx));
3196		AddPoint(pt1);
3197		pt2 = IntPoint((long64)(pt2.X + normals[m_j].Y * dx),
3198		(long64)(pt2.Y -normals[m_j].X * dx));
3199		AddPoint(pt2);
	3311	double a1 = std::atan2(normals[m_k].Y, normals[m_k].X);
	3312	double a2 = std::atan2(-normals[m_j].Y, -normals[m_j].X);
	3313	a1 = std::fabs(a2 - a1);
	3314	if (a1 > pi) a1 = pi * 2 - a1;
	3315	double dx = std::tan((pi - a1)/4) * std::fabs(m_delta * mul);
	3316	pt1 = IntPoint((long64)(pt1.X -normals[m_k].Y * dx),
	3317	(long64)(pt1.Y + normals[m_k].X * dx));
	3318	AddPoint(pt1);
	3319	pt2 = IntPoint((long64)(pt2.X + normals[m_j].Y * dx),
	3320	(long64)(pt2.Y -normals[m_j].X * dx));
	3321	AddPoint(pt2);
3200	3322	}
3201	3323	else
3202	3324	{
3203		AddPoint(pt1);
3204		AddPoint(m_p[m_i][m_j]);
3205		AddPoint(pt2);
	3325	AddPoint(pt1);
	3326	AddPoint(m_p[m_i][m_j]);
	3327	AddPoint(pt2);
3206	3328	}
3207	3329	}
3208	3330	//------------------------------------------------------------------------------

3273	3395	}
3274	3396	//------------------------------------------------------------------------------
3275	3397
	3398	void SimplifyPolygon(const Polygon &in_poly, Polygons &out_polys, PolyFillType fillType)
	3399	{
	3400	Clipper c;
	3401	c.AddPolygon(in_poly, ptSubject);
	3402	c.Execute(ctUnion, out_polys, fillType, fillType);
	3403	}
	3404	//------------------------------------------------------------------------------
	3405
	3406	void SimplifyPolygons(const Polygons &in_polys, Polygons &out_polys, PolyFillType fillType)
	3407	{
	3408	Clipper c;
	3409	c.AddPolygons(in_polys, ptSubject);
	3410	c.Execute(ctUnion, out_polys, fillType, fillType);
	3411	}
	3412	//------------------------------------------------------------------------------
	3413
	3414	void SimplifyPolygons(Polygons &polys, PolyFillType fillType)
	3415	{
	3416	SimplifyPolygons(polys, polys, fillType);
	3417	}
	3418	//------------------------------------------------------------------------------
	3419
3276	3420	std::ostream& operator <<(std::ostream &s, IntPoint& p)
3277	3421	{
3278	3422	s << p.X << ' ' << p.Y << "\n";

+16

-12

contrib/clipper/clipper.hpp less more

0	0	/*******************************************************************************
1	1	* *
2	2	* Author : Angus Johnson *
3		* Version : 4.6.3 *
4		* Date : 11 November 2011 *
	3	* Version : 4.8.8 *
	4	* Date : 30 August 2012 *
5	5	* Website : http://www.angusj.com *
6		* Copyright : Angus Johnson 2010-2011 *
	6	* Copyright : Angus Johnson 2010-2012 *
7	7	* *
8	8	* License: *
9	9	* Use, modification & distribution is subject to Boost Software License Ver 1. *

72	72	};
73	73	typedef std::vector< ExPolygon > ExPolygons;
74	74
75		enum JoinType { jtSquare, jtMiter, jtRound };
	75	enum JoinType { jtSquare, jtRound, jtMiter };
76	76
77	77	bool Orientation(const Polygon &poly);
78	78	double Area(const Polygon &poly);
79	79	void OffsetPolygons(const Polygons &in_polys, Polygons &out_polys,
80	80	double delta, JoinType jointype = jtSquare, double MiterLimit = 2);
81
82		void ReversePoints(Polygon& p);
83		void ReversePoints(Polygons& p);
	81	void SimplifyPolygon(const Polygon &in_poly, Polygons &out_polys, PolyFillType fillType = pftEvenOdd);
	82	void SimplifyPolygons(const Polygons &in_polys, Polygons &out_polys, PolyFillType fillType = pftEvenOdd);
	83	void SimplifyPolygons(Polygons &polys, PolyFillType fillType = pftEvenOdd);
	84
	85	void ReversePolygon(Polygon& p);
	86	void ReversePolygons(Polygons& p);
84	87
85	88	//used internally ...
86		enum EdgeSide { esLeft, esRight };
	89	enum EdgeSide { esNeither = 0, esLeft = 1, esRight = 2, esBoth = 3 };
87	90	enum IntersectProtects { ipNone = 0, ipLeft = 1, ipRight = 2, ipBoth = 3 };
88	91
89	92	struct TEdge {

138	141	OutRec *AppendLink;
139	142	OutPt *pts;
140	143	OutPt *bottomPt;
141		TEdge *bottomE1;
142		TEdge *bottomE2;
	144	OutPt *bottomFlag;
	145	EdgeSide sides;
143	146	};
144	147
145	148	struct OutPt {

255	258	void IntersectEdges(TEdge e1, TEdge e2,
256	259	const IntPoint &pt, IntersectProtects protects);
257	260	OutRec* CreateOutRec();
258		void AddOutPt(TEdge e, TEdge altE, const IntPoint &pt);
	261	void AddOutPt(TEdge *e, const IntPoint &pt);
	262	void DisposeBottomPt(OutRec &outRec);
259	263	void DisposeAllPolyPts();
260		void DisposeOutRec(PolyOutList::size_type index, bool ignorePts = false);
	264	void DisposeOutRec(PolyOutList::size_type index);
261	265	bool ProcessIntersections(const long64 botY, const long64 topY);
262	266	void AddIntersectNode(TEdge e1, TEdge e2, const IntPoint &pt);
263	267	void BuildIntersectList(const long64 botY, const long64 topY);

-1

contrib/irrXML/CXMLReaderImpl.h less more

214	214	{
215	215	char_type* start = P;
216	216
217		// more forward until '<' found
	217	// move forward until '<' found
218	218	while(P != L'<' && P)
219	219	++P;
220	220

+10

-4

contrib/poly2tri/poly2tri/common/shapes.cc less more

118	118	Point* Triangle::OppositePoint(Triangle& t, Point& p)
119	119	{
120	120	Point *cw = t.PointCW(p);
121		double x = cw->x;
122		double y = cw->y;
123		x = p.x;
124		y = p.y;
	121	//double x = cw->x;
	122	//double y = cw->y;
	123	//x = p.x;
	124	//y = p.y;
125	125	return PointCW(*cw);
126	126	}
127	127

163	163	return 2;
164	164	}
165	165	assert(0);
	166
	167	return 0;
166	168	}
167	169
168	170	int Triangle::EdgeIndex(const Point* p1, const Point* p2)

222	224	return points_[1];
223	225	}
224	226	assert(0);
	227
	228	return 0;
225	229	}
226	230
227	231	// The point counter-clockwise to given point

235	239	return points_[0];
236	240	}
237	241	assert(0);
	242
	243	return 0;
238	244	}
239	245
240	246	// The neighbor clockwise to given point

-2

contrib/poly2tri/poly2tri/common/shapes.h less more

37	37	#include <stdexcept>
38	38	#include <assert.h>
39	39	#include <cmath>
	40	#include <string>
40	41
41	42	namespace p2t {
42	43

136	137	p = &p2;
137	138	} else if (p1.x == p2.x) {
138	139	// Repeat points
139		// ASSIMP_CHANGE (aramis_acg)
140		throw std::runtime_error("repeat points");
	140	// ASSIMP_CHANGE (aramis_acg)
	141	throw std::runtime_error(std::string("repeat points"));
141	142	//assert(false);
142	143	}
143	144	}

-1

contrib/poly2tri/poly2tri/sweep/sweep.cc less more

753	753	Sweep::~Sweep() {
754	754
755	755	// Clean up memory
756		for(int i = 0; i < nodes_.size(); i++) {
	756	for(unsigned int i = 0; i < nodes_.size(); i++) {
757	757	delete nodes_[i];
758	758	}
759	759

doc/AssimpCmdDoc_Html/AssimpCmdDoc.chm less more

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+645

-0

doc/AssimpDoc_Html/AnimationOverview.svg less more

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doc/Doxyfile less more

0		# Doxyfile 1.5.8
1
2		#---------------------------------------------------------------------------
3		# Project related configuration options
4		#---------------------------------------------------------------------------
5		DOXYFILE_ENCODING = UTF-8
6		PROJECT_NAME = Assimp
7		PROJECT_NUMBER = "v2.0 (November 2010)"
8		OUTPUT_DIRECTORY =
9		CREATE_SUBDIRS = NO
10		OUTPUT_LANGUAGE = English
11		BRIEF_MEMBER_DESC = YES
12		REPEAT_BRIEF = YES
13		ABBREVIATE_BRIEF = "The $name class " \
14		"The $name widget " \
15		"The $name file " \
16		is \
17		provides \
18		specifies \
19		contains \
20		represents \
21		a \
22		an \
23		the
24		ALWAYS_DETAILED_SEC = NO
25		INLINE_INHERITED_MEMB = NO
26		FULL_PATH_NAMES = NO
27		STRIP_FROM_PATH =
28		STRIP_FROM_INC_PATH =
29		SHORT_NAMES = NO
30		JAVADOC_AUTOBRIEF = YES
31		QT_AUTOBRIEF = NO
32		MULTILINE_CPP_IS_BRIEF = NO
33		INHERIT_DOCS = YES
34		SEPARATE_MEMBER_PAGES = NO
35		TAB_SIZE = 8
36		ALIASES =
37		OPTIMIZE_OUTPUT_FOR_C = NO
38		OPTIMIZE_OUTPUT_JAVA = NO
39		OPTIMIZE_FOR_FORTRAN = NO
40		OPTIMIZE_OUTPUT_VHDL = NO
41		EXTENSION_MAPPING =
42		BUILTIN_STL_SUPPORT = YES
43		CPP_CLI_SUPPORT = NO
44		SIP_SUPPORT = NO
45		IDL_PROPERTY_SUPPORT = YES
46		DISTRIBUTE_GROUP_DOC = NO
47		SUBGROUPING = YES
48		TYPEDEF_HIDES_STRUCT = YES
49		SYMBOL_CACHE_SIZE = 0
50		#---------------------------------------------------------------------------
51		# Build related configuration options
52		#---------------------------------------------------------------------------
53		EXTRACT_ALL = YES
54		EXTRACT_PRIVATE = NO
55		EXTRACT_STATIC = YES
56		EXTRACT_LOCAL_CLASSES = YES
57		EXTRACT_LOCAL_METHODS = NO
58		EXTRACT_ANON_NSPACES = NO
59		HIDE_UNDOC_MEMBERS = YES
60		HIDE_UNDOC_CLASSES = YES
61		HIDE_FRIEND_COMPOUNDS = NO
62		HIDE_IN_BODY_DOCS = NO
63		INTERNAL_DOCS = NO
64		CASE_SENSE_NAMES = NO
65		HIDE_SCOPE_NAMES = NO
66		SHOW_INCLUDE_FILES = NO
67		INLINE_INFO = YES
68		SORT_MEMBER_DOCS = YES
69		SORT_BRIEF_DOCS = YES
70		SORT_GROUP_NAMES = NO
71		SORT_BY_SCOPE_NAME = YES
72		GENERATE_TODOLIST = YES
73		GENERATE_TESTLIST = YES
74		GENERATE_BUGLIST = YES
75		GENERATE_DEPRECATEDLIST= YES
76		ENABLED_SECTIONS =
77		MAX_INITIALIZER_LINES = 30
78		SHOW_USED_FILES = YES
79		SHOW_DIRECTORIES = NO
80		SHOW_FILES = YES
81		SHOW_NAMESPACES = YES
82		FILE_VERSION_FILTER =
83		LAYOUT_FILE =
84		#---------------------------------------------------------------------------
85		# configuration options related to warning and progress messages
86		#---------------------------------------------------------------------------
87		QUIET = NO
88		WARNINGS = YES
89		WARN_IF_UNDOCUMENTED = YES
90		WARN_IF_DOC_ERROR = YES
91		WARN_NO_PARAMDOC = NO
92		WARN_FORMAT = "$file:$line: $text"
93		WARN_LOGFILE =
94		#---------------------------------------------------------------------------
95		# configuration options related to the input files
96		#---------------------------------------------------------------------------
97		INPUT = ../include/ \
98		../doc/dox.h \
99		../code/BaseImporter.h
100		INPUT_ENCODING = UTF-8
101		FILE_PATTERNS = *.c \
102		*.cc \
103		*.cxx \
104		*.cpp \
105		*.c++ \
106		*.d \
107		*.java \
108		*.ii \
109		*.ixx \
110		*.ipp \
111		*.i++ \
112		*.inl \
113		*.h \
114		*.hh \
115		*.hxx \
116		*.hpp \
117		*.h++ \
118		*.idl \
119		*.odl \
120		*.cs \
121		*.php \
122		*.php3 \
123		*.inc \
124		*.m \
125		*.mm \
126		*.dox \
127		*.py
128		RECURSIVE = YES
129		EXCLUDE =
130		EXCLUDE_SYMLINKS = NO
131		EXCLUDE_PATTERNS = /.svn/ \
132		*/.svn
133		EXCLUDE_SYMBOLS =
134		EXAMPLE_PATH =
135		EXAMPLE_PATTERNS = *
136		EXAMPLE_RECURSIVE = NO
137		IMAGE_PATH =
138		INPUT_FILTER =
139		FILTER_PATTERNS =
140		FILTER_SOURCE_FILES = NO
141		#---------------------------------------------------------------------------
142		# configuration options related to source browsing
143		#---------------------------------------------------------------------------
144		SOURCE_BROWSER = NO
145		INLINE_SOURCES = NO
146		STRIP_CODE_COMMENTS = YES
147		REFERENCED_BY_RELATION = NO
148		REFERENCES_RELATION = NO
149		REFERENCES_LINK_SOURCE = YES
150		USE_HTAGS = NO
151		VERBATIM_HEADERS = NO
152		#---------------------------------------------------------------------------
153		# configuration options related to the alphabetical class index
154		#---------------------------------------------------------------------------
155		ALPHABETICAL_INDEX = YES
156		COLS_IN_ALPHA_INDEX = 5
157		IGNORE_PREFIX =
158		#---------------------------------------------------------------------------
159		# configuration options related to the HTML output
160		#---------------------------------------------------------------------------
161		GENERATE_HTML = YES
162		HTML_OUTPUT = AssimpDoc_Html
163		HTML_FILE_EXTENSION = .html
164		HTML_HEADER =
165		HTML_FOOTER =
166		HTML_STYLESHEET = style.css
167		HTML_ALIGN_MEMBERS = YES
168		HTML_DYNAMIC_SECTIONS = NO
169		GENERATE_DOCSET = NO
170		DOCSET_FEEDNAME = "Doxygen generated docs"
171		DOCSET_BUNDLE_ID = org.doxygen.Project
172		GENERATE_HTMLHELP = YES
173		CHM_FILE = AssimpDoc.chm
174		HHC_LOCATION = "C:\Program Files (x86)\HTML Help Workshop/hhc.exe"
175		GENERATE_CHI = NO
176		CHM_INDEX_ENCODING =
177		BINARY_TOC = NO
178		TOC_EXPAND = NO
179		GENERATE_QHP = NO
180		QCH_FILE =
181		QHP_NAMESPACE =
182		QHP_VIRTUAL_FOLDER = doc
183		QHP_CUST_FILTER_NAME =
184		QHP_CUST_FILTER_ATTRS =
185		QHP_SECT_FILTER_ATTRS =
186		QHG_LOCATION =
187		DISABLE_INDEX = NO
188		ENUM_VALUES_PER_LINE = 4
189		GENERATE_TREEVIEW = YES
190		TREEVIEW_WIDTH = 250
191		FORMULA_FONTSIZE = 10
192		#---------------------------------------------------------------------------
193		# configuration options related to the LaTeX output
194		#---------------------------------------------------------------------------
195		GENERATE_LATEX = NO
196		LATEX_OUTPUT = latex
197		LATEX_CMD_NAME = latex
198		MAKEINDEX_CMD_NAME = makeindex
199		COMPACT_LATEX = NO
200		PAPER_TYPE = a4wide
201		EXTRA_PACKAGES =
202		LATEX_HEADER =
203		PDF_HYPERLINKS = NO
204		USE_PDFLATEX = NO
205		LATEX_BATCHMODE = NO
206		LATEX_HIDE_INDICES = NO
207		#---------------------------------------------------------------------------
208		# configuration options related to the RTF output
209		#---------------------------------------------------------------------------
210		GENERATE_RTF = NO
211		RTF_OUTPUT = rtf
212		COMPACT_RTF = NO
213		RTF_HYPERLINKS = NO
214		RTF_STYLESHEET_FILE =
215		RTF_EXTENSIONS_FILE =
216		#---------------------------------------------------------------------------
217		# configuration options related to the man page output
218		#---------------------------------------------------------------------------
219		GENERATE_MAN = NO
220		MAN_OUTPUT = man
221		MAN_EXTENSION = .3
222		MAN_LINKS = NO
223		#---------------------------------------------------------------------------
224		# configuration options related to the XML output
225		#---------------------------------------------------------------------------
226		GENERATE_XML = NO
227		XML_OUTPUT = xml
228		XML_SCHEMA =
229		XML_DTD =
230		XML_PROGRAMLISTING = YES
231		#---------------------------------------------------------------------------
232		# configuration options for the AutoGen Definitions output
233		#---------------------------------------------------------------------------
234		GENERATE_AUTOGEN_DEF = NO
235		#---------------------------------------------------------------------------
236		# configuration options related to the Perl module output
237		#---------------------------------------------------------------------------
238		GENERATE_PERLMOD = NO
239		PERLMOD_LATEX = NO
240		PERLMOD_PRETTY = YES
241		PERLMOD_MAKEVAR_PREFIX =
242		#---------------------------------------------------------------------------
243		# Configuration options related to the preprocessor
244		#---------------------------------------------------------------------------
245		ENABLE_PREPROCESSING = YES
246		MACRO_EXPANSION = YES
247		EXPAND_ONLY_PREDEF = YES
248		SEARCH_INCLUDES = YES
249		INCLUDE_PATH =
250		INCLUDE_FILE_PATTERNS =
251		PREDEFINED = ASSIMP_DOXYGEN_BUILD=1 \
252		__cplusplus
253		EXPAND_AS_DEFINED = C_STRUCT \
254		C_ENUM
255		SKIP_FUNCTION_MACROS = YES
256		#---------------------------------------------------------------------------
257		# Configuration::additions related to external references
258		#---------------------------------------------------------------------------
259		TAGFILES =
260		GENERATE_TAGFILE =
261		ALLEXTERNALS = NO
262		EXTERNAL_GROUPS = YES
263		PERL_PATH = /usr/bin/perl
264		#---------------------------------------------------------------------------
265		# Configuration options related to the dot tool
266		#---------------------------------------------------------------------------
267		CLASS_DIAGRAMS = NO
268		MSCGEN_PATH =
269		HIDE_UNDOC_RELATIONS = YES
270		HAVE_DOT = NO
271		DOT_FONTNAME = FreeSans
272		DOT_FONTSIZE = 10
273		DOT_FONTPATH =
274		CLASS_GRAPH = YES
275		COLLABORATION_GRAPH = YES
276		GROUP_GRAPHS = YES
277		UML_LOOK = NO
278		TEMPLATE_RELATIONS = NO
279		INCLUDE_GRAPH = YES
280		INCLUDED_BY_GRAPH = YES
281		CALL_GRAPH = NO
282		CALLER_GRAPH = NO
283		GRAPHICAL_HIERARCHY = YES
284		DIRECTORY_GRAPH = YES
285		DOT_IMAGE_FORMAT = png
286		DOT_PATH =
287		DOTFILE_DIRS =
288		DOT_GRAPH_MAX_NODES = 50
289		MAX_DOT_GRAPH_DEPTH = 1000
290		DOT_TRANSPARENT = NO
291		DOT_MULTI_TARGETS = NO
292		GENERATE_LEGEND = YES
293		DOT_CLEANUP = YES
294		#---------------------------------------------------------------------------
295		# Options related to the search engine
296		#---------------------------------------------------------------------------
297		SEARCHENGINE = NO
	0	# Doxyfile 1.8.3.1
	1
	2	# This file describes the settings to be used by the documentation system
	3	# doxygen (www.doxygen.org) for a project
	4	#
	5	# All text after a hash (#) is considered a comment and will be ignored
	6	# The format is:
	7	# TAG = value [value, ...]
	8	# For lists items can also be appended using:
	9	# TAG += value [value, ...]
	10	# Values that contain spaces should be placed between quotes (" ")
	11
	12	#---------------------------------------------------------------------------
	13	# Project related configuration options
	14	#---------------------------------------------------------------------------
	15
	16	# This tag specifies the encoding used for all characters in the config file
	17	# that follow. The default is UTF-8 which is also the encoding used for all
	18	# text before the first occurrence of this tag. Doxygen uses libiconv (or the
	19	# iconv built into libc) for the transcoding. See
	20	# http://www.gnu.org/software/libiconv for the list of possible encodings.
	21
	22	DOXYFILE_ENCODING = UTF-8
	23
	24	# The PROJECT_NAME tag is a single word (or sequence of words) that should
	25	# identify the project. Note that if you do not use Doxywizard you need
	26	# to put quotes around the project name if it contains spaces.
	27
	28	PROJECT_NAME = Assimp
	29
	30	# The PROJECT_NUMBER tag can be used to enter a project or revision number.
	31	# This could be handy for archiving the generated documentation or
	32	# if some version control system is used.
	33
	34	PROJECT_NUMBER = "v3.1.1 (June 2014)"
	35
	36	# Using the PROJECT_BRIEF tag one can provide an optional one line description
	37	# for a project that appears at the top of each page and should give viewer
	38	# a quick idea about the purpose of the project. Keep the description short.
	39
	40	PROJECT_BRIEF =
	41
	42	# With the PROJECT_LOGO tag one can specify an logo or icon that is
	43	# included in the documentation. The maximum height of the logo should not
	44	# exceed 55 pixels and the maximum width should not exceed 200 pixels.
	45	# Doxygen will copy the logo to the output directory.
	46
	47	PROJECT_LOGO =
	48
	49	# The OUTPUT_DIRECTORY tag is used to specify the (relative or absolute)
	50	# base path where the generated documentation will be put.
	51	# If a relative path is entered, it will be relative to the location
	52	# where doxygen was started. If left blank the current directory will be used.
	53
	54	OUTPUT_DIRECTORY =
	55
	56	# If the CREATE_SUBDIRS tag is set to YES, then doxygen will create
	57	# 4096 sub-directories (in 2 levels) under the output directory of each output
	58	# format and will distribute the generated files over these directories.
	59	# Enabling this option can be useful when feeding doxygen a huge amount of
	60	# source files, where putting all generated files in the same directory would
	61	# otherwise cause performance problems for the file system.
	62
	63	CREATE_SUBDIRS = NO
	64
	65	# The OUTPUT_LANGUAGE tag is used to specify the language in which all
	66	# documentation generated by doxygen is written. Doxygen will use this
	67	# information to generate all constant output in the proper language.
	68	# The default language is English, other supported languages are:
	69	# Afrikaans, Arabic, Brazilian, Catalan, Chinese, Chinese-Traditional,
	70	# Croatian, Czech, Danish, Dutch, Esperanto, Farsi, Finnish, French, German,
	71	# Greek, Hungarian, Italian, Japanese, Japanese-en (Japanese with English
	72	# messages), Korean, Korean-en, Lithuanian, Norwegian, Macedonian, Persian,
	73	# Polish, Portuguese, Romanian, Russian, Serbian, Serbian-Cyrillic, Slovak,
	74	# Slovene, Spanish, Swedish, Ukrainian, and Vietnamese.
	75
	76	OUTPUT_LANGUAGE = English
	77
	78	# If the BRIEF_MEMBER_DESC tag is set to YES (the default) Doxygen will
	79	# include brief member descriptions after the members that are listed in
	80	# the file and class documentation (similar to JavaDoc).
	81	# Set to NO to disable this.
	82
	83	BRIEF_MEMBER_DESC = YES
	84
	85	# If the REPEAT_BRIEF tag is set to YES (the default) Doxygen will prepend
	86	# the brief description of a member or function before the detailed description.
	87	# Note: if both HIDE_UNDOC_MEMBERS and BRIEF_MEMBER_DESC are set to NO, the
	88	# brief descriptions will be completely suppressed.
	89
	90	REPEAT_BRIEF = YES
	91
	92	# This tag implements a quasi-intelligent brief description abbreviator
	93	# that is used to form the text in various listings. Each string
	94	# in this list, if found as the leading text of the brief description, will be
	95	# stripped from the text and the result after processing the whole list, is
	96	# used as the annotated text. Otherwise, the brief description is used as-is.
	97	# If left blank, the following values are used ("$name" is automatically
	98	# replaced with the name of the entity): "The $name class" "The $name widget"
	99	# "The $name file" "is" "provides" "specifies" "contains"
	100	# "represents" "a" "an" "the"
	101
	102	ABBREVIATE_BRIEF = "The $name class " \
	103	"The $name widget " \
	104	"The $name file " \
	105	is \
	106	provides \
	107	specifies \
	108	contains \
	109	represents \
	110	a \
	111	an \
	112	the
	113
	114	# If the ALWAYS_DETAILED_SEC and REPEAT_BRIEF tags are both set to YES then
	115	# Doxygen will generate a detailed section even if there is only a brief
	116	# description.
	117
	118	ALWAYS_DETAILED_SEC = NO
	119
	120	# If the INLINE_INHERITED_MEMB tag is set to YES, doxygen will show all
	121	# inherited members of a class in the documentation of that class as if those
	122	# members were ordinary class members. Constructors, destructors and assignment
	123	# operators of the base classes will not be shown.
	124
	125	INLINE_INHERITED_MEMB = NO
	126
	127	# If the FULL_PATH_NAMES tag is set to YES then Doxygen will prepend the full
	128	# path before files name in the file list and in the header files. If set
	129	# to NO the shortest path that makes the file name unique will be used.
	130
	131	FULL_PATH_NAMES = NO
	132
	133	# If the FULL_PATH_NAMES tag is set to YES then the STRIP_FROM_PATH tag
	134	# can be used to strip a user-defined part of the path. Stripping is
	135	# only done if one of the specified strings matches the left-hand part of
	136	# the path. The tag can be used to show relative paths in the file list.
	137	# If left blank the directory from which doxygen is run is used as the
	138	# path to strip. Note that you specify absolute paths here, but also
	139	# relative paths, which will be relative from the directory where doxygen is
	140	# started.
	141
	142	STRIP_FROM_PATH =
	143
	144	# The STRIP_FROM_INC_PATH tag can be used to strip a user-defined part of
	145	# the path mentioned in the documentation of a class, which tells
	146	# the reader which header file to include in order to use a class.
	147	# If left blank only the name of the header file containing the class
	148	# definition is used. Otherwise one should specify the include paths that
	149	# are normally passed to the compiler using the -I flag.
	150
	151	STRIP_FROM_INC_PATH =
	152
	153	# If the SHORT_NAMES tag is set to YES, doxygen will generate much shorter
	154	# (but less readable) file names. This can be useful if your file system
	155	# doesn't support long names like on DOS, Mac, or CD-ROM.
	156
	157	SHORT_NAMES = NO
	158
	159	# If the JAVADOC_AUTOBRIEF tag is set to YES then Doxygen
	160	# will interpret the first line (until the first dot) of a JavaDoc-style
	161	# comment as the brief description. If set to NO, the JavaDoc
	162	# comments will behave just like regular Qt-style comments
	163	# (thus requiring an explicit @brief command for a brief description.)
	164
	165	JAVADOC_AUTOBRIEF = YES
	166
	167	# If the QT_AUTOBRIEF tag is set to YES then Doxygen will
	168	# interpret the first line (until the first dot) of a Qt-style
	169	# comment as the brief description. If set to NO, the comments
	170	# will behave just like regular Qt-style comments (thus requiring
	171	# an explicit \brief command for a brief description.)
	172
	173	QT_AUTOBRIEF = NO
	174
	175	# The MULTILINE_CPP_IS_BRIEF tag can be set to YES to make Doxygen
	176	# treat a multi-line C++ special comment block (i.e. a block of //! or ///
	177	# comments) as a brief description. This used to be the default behaviour.
	178	# The new default is to treat a multi-line C++ comment block as a detailed
	179	# description. Set this tag to YES if you prefer the old behaviour instead.
	180
	181	MULTILINE_CPP_IS_BRIEF = NO
	182
	183	# If the INHERIT_DOCS tag is set to YES (the default) then an undocumented
	184	# member inherits the documentation from any documented member that it
	185	# re-implements.
	186
	187	INHERIT_DOCS = YES
	188
	189	# If the SEPARATE_MEMBER_PAGES tag is set to YES, then doxygen will produce
	190	# a new page for each member. If set to NO, the documentation of a member will
	191	# be part of the file/class/namespace that contains it.
	192
	193	SEPARATE_MEMBER_PAGES = NO
	194
	195	# The TAB_SIZE tag can be used to set the number of spaces in a tab.
	196	# Doxygen uses this value to replace tabs by spaces in code fragments.
	197
	198	TAB_SIZE = 8
	199
	200	# This tag can be used to specify a number of aliases that acts
	201	# as commands in the documentation. An alias has the form "name=value".
	202	# For example adding "sideeffect=\par Side Effects:\n" will allow you to
	203	# put the command \sideeffect (or @sideeffect) in the documentation, which
	204	# will result in a user-defined paragraph with heading "Side Effects:".
	205	# You can put \n's in the value part of an alias to insert newlines.
	206
	207	ALIASES =
	208
	209	# This tag can be used to specify a number of word-keyword mappings (TCL only).
	210	# A mapping has the form "name=value". For example adding
	211	# "class=itcl::class" will allow you to use the command class in the
	212	# itcl::class meaning.
	213
	214	TCL_SUBST =
	215
	216	# Set the OPTIMIZE_OUTPUT_FOR_C tag to YES if your project consists of C
	217	# sources only. Doxygen will then generate output that is more tailored for C.
	218	# For instance, some of the names that are used will be different. The list
	219	# of all members will be omitted, etc.
	220
	221	OPTIMIZE_OUTPUT_FOR_C = NO
	222
	223	# Set the OPTIMIZE_OUTPUT_JAVA tag to YES if your project consists of Java
	224	# sources only. Doxygen will then generate output that is more tailored for
	225	# Java. For instance, namespaces will be presented as packages, qualified
	226	# scopes will look different, etc.
	227
	228	OPTIMIZE_OUTPUT_JAVA = NO
	229
	230	# Set the OPTIMIZE_FOR_FORTRAN tag to YES if your project consists of Fortran
	231	# sources only. Doxygen will then generate output that is more tailored for
	232	# Fortran.
	233
	234	OPTIMIZE_FOR_FORTRAN = NO
	235
	236	# Set the OPTIMIZE_OUTPUT_VHDL tag to YES if your project consists of VHDL
	237	# sources. Doxygen will then generate output that is tailored for
	238	# VHDL.
	239
	240	OPTIMIZE_OUTPUT_VHDL = NO
	241
	242	# Doxygen selects the parser to use depending on the extension of the files it
	243	# parses. With this tag you can assign which parser to use for a given
	244	# extension. Doxygen has a built-in mapping, but you can override or extend it
	245	# using this tag. The format is ext=language, where ext is a file extension,
	246	# and language is one of the parsers supported by doxygen: IDL, Java,
	247	# Javascript, CSharp, C, C++, D, PHP, Objective-C, Python, Fortran, VHDL, C,
	248	# C++. For instance to make doxygen treat .inc files as Fortran files (default
	249	# is PHP), and .f files as C (default is Fortran), use: inc=Fortran f=C. Note
	250	# that for custom extensions you also need to set FILE_PATTERNS otherwise the
	251	# files are not read by doxygen.
	252
	253	EXTENSION_MAPPING =
	254
	255	# If MARKDOWN_SUPPORT is enabled (the default) then doxygen pre-processes all
	256	# comments according to the Markdown format, which allows for more readable
	257	# documentation. See http://daringfireball.net/projects/markdown/ for details.
	258	# The output of markdown processing is further processed by doxygen, so you
	259	# can mix doxygen, HTML, and XML commands with Markdown formatting.
	260	# Disable only in case of backward compatibilities issues.
	261
	262	MARKDOWN_SUPPORT = YES
	263
	264	# When enabled doxygen tries to link words that correspond to documented classes,
	265	# or namespaces to their corresponding documentation. Such a link can be
	266	# prevented in individual cases by by putting a % sign in front of the word or
	267	# globally by setting AUTOLINK_SUPPORT to NO.
	268
	269	AUTOLINK_SUPPORT = YES
	270
	271	# If you use STL classes (i.e. std::string, std::vector, etc.) but do not want
	272	# to include (a tag file for) the STL sources as input, then you should
	273	# set this tag to YES in order to let doxygen match functions declarations and
	274	# definitions whose arguments contain STL classes (e.g. func(std::string); v.s.
	275	# func(std::string) {}). This also makes the inheritance and collaboration
	276	# diagrams that involve STL classes more complete and accurate.
	277
	278	BUILTIN_STL_SUPPORT = YES
	279
	280	# If you use Microsoft's C++/CLI language, you should set this option to YES to
	281	# enable parsing support.
	282
	283	CPP_CLI_SUPPORT = NO
	284
	285	# Set the SIP_SUPPORT tag to YES if your project consists of sip sources only.
	286	# Doxygen will parse them like normal C++ but will assume all classes use public
	287	# instead of private inheritance when no explicit protection keyword is present.
	288
	289	SIP_SUPPORT = NO
	290
	291	# For Microsoft's IDL there are propget and propput attributes to indicate
	292	# getter and setter methods for a property. Setting this option to YES (the
	293	# default) will make doxygen replace the get and set methods by a property in
	294	# the documentation. This will only work if the methods are indeed getting or
	295	# setting a simple type. If this is not the case, or you want to show the
	296	# methods anyway, you should set this option to NO.
	297
	298	IDL_PROPERTY_SUPPORT = YES
	299
	300	# If member grouping is used in the documentation and the DISTRIBUTE_GROUP_DOC
	301	# tag is set to YES, then doxygen will reuse the documentation of the first
	302	# member in the group (if any) for the other members of the group. By default
	303	# all members of a group must be documented explicitly.
	304
	305	DISTRIBUTE_GROUP_DOC = NO
	306
	307	# Set the SUBGROUPING tag to YES (the default) to allow class member groups of
	308	# the same type (for instance a group of public functions) to be put as a
	309	# subgroup of that type (e.g. under the Public Functions section). Set it to
	310	# NO to prevent subgrouping. Alternatively, this can be done per class using
	311	# the \nosubgrouping command.
	312
	313	SUBGROUPING = YES
	314
	315	# When the INLINE_GROUPED_CLASSES tag is set to YES, classes, structs and
	316	# unions are shown inside the group in which they are included (e.g. using
	317	# @ingroup) instead of on a separate page (for HTML and Man pages) or
	318	# section (for LaTeX and RTF).
	319
	320	INLINE_GROUPED_CLASSES = NO
	321
	322	# When the INLINE_SIMPLE_STRUCTS tag is set to YES, structs, classes, and
	323	# unions with only public data fields will be shown inline in the documentation
	324	# of the scope in which they are defined (i.e. file, namespace, or group
	325	# documentation), provided this scope is documented. If set to NO (the default),
	326	# structs, classes, and unions are shown on a separate page (for HTML and Man
	327	# pages) or section (for LaTeX and RTF).
	328
	329	INLINE_SIMPLE_STRUCTS = NO
	330
	331	# When TYPEDEF_HIDES_STRUCT is enabled, a typedef of a struct, union, or enum
	332	# is documented as struct, union, or enum with the name of the typedef. So
	333	# typedef struct TypeS {} TypeT, will appear in the documentation as a struct
	334	# with name TypeT. When disabled the typedef will appear as a member of a file,
	335	# namespace, or class. And the struct will be named TypeS. This can typically
	336	# be useful for C code in case the coding convention dictates that all compound
	337	# types are typedef'ed and only the typedef is referenced, never the tag name.
	338
	339	TYPEDEF_HIDES_STRUCT = YES
	340
	341	# The SYMBOL_CACHE_SIZE determines the size of the internal cache use to
	342	# determine which symbols to keep in memory and which to flush to disk.
	343	# When the cache is full, less often used symbols will be written to disk.
	344	# For small to medium size projects (<1000 input files) the default value is
	345	# probably good enough. For larger projects a too small cache size can cause
	346	# doxygen to be busy swapping symbols to and from disk most of the time
	347	# causing a significant performance penalty.
	348	# If the system has enough physical memory increasing the cache will improve the
	349	# performance by keeping more symbols in memory. Note that the value works on
	350	# a logarithmic scale so increasing the size by one will roughly double the
	351	# memory usage. The cache size is given by this formula:
	352	# 2^(16+SYMBOL_CACHE_SIZE). The valid range is 0..9, the default is 0,
	353	# corresponding to a cache size of 2^16 = 65536 symbols.
	354
	355	SYMBOL_CACHE_SIZE = 0
	356
	357	# Similar to the SYMBOL_CACHE_SIZE the size of the symbol lookup cache can be
	358	# set using LOOKUP_CACHE_SIZE. This cache is used to resolve symbols given
	359	# their name and scope. Since this can be an expensive process and often the
	360	# same symbol appear multiple times in the code, doxygen keeps a cache of
	361	# pre-resolved symbols. If the cache is too small doxygen will become slower.
	362	# If the cache is too large, memory is wasted. The cache size is given by this
	363	# formula: 2^(16+LOOKUP_CACHE_SIZE). The valid range is 0..9, the default is 0,
	364	# corresponding to a cache size of 2^16 = 65536 symbols.
	365
	366	LOOKUP_CACHE_SIZE = 0
	367
	368	#---------------------------------------------------------------------------
	369	# Build related configuration options
	370	#---------------------------------------------------------------------------
	371
	372	# If the EXTRACT_ALL tag is set to YES doxygen will assume all entities in
	373	# documentation are documented, even if no documentation was available.
	374	# Private class members and static file members will be hidden unless
	375	# the EXTRACT_PRIVATE and EXTRACT_STATIC tags are set to YES
	376
	377	EXTRACT_ALL = YES
	378
	379	# If the EXTRACT_PRIVATE tag is set to YES all private members of a class
	380	# will be included in the documentation.
	381
	382	EXTRACT_PRIVATE = NO
	383
	384	# If the EXTRACT_PACKAGE tag is set to YES all members with package or internal
	385	# scope will be included in the documentation.
	386
	387	EXTRACT_PACKAGE = NO
	388
	389	# If the EXTRACT_STATIC tag is set to YES all static members of a file
	390	# will be included in the documentation.
	391
	392	EXTRACT_STATIC = YES
	393
	394	# If the EXTRACT_LOCAL_CLASSES tag is set to YES classes (and structs)
	395	# defined locally in source files will be included in the documentation.
	396	# If set to NO only classes defined in header files are included.
	397
	398	EXTRACT_LOCAL_CLASSES = YES
	399
	400	# This flag is only useful for Objective-C code. When set to YES local
	401	# methods, which are defined in the implementation section but not in
	402	# the interface are included in the documentation.
	403	# If set to NO (the default) only methods in the interface are included.
	404
	405	EXTRACT_LOCAL_METHODS = NO
	406
	407	# If this flag is set to YES, the members of anonymous namespaces will be
	408	# extracted and appear in the documentation as a namespace called
	409	# 'anonymous_namespace{file}', where file will be replaced with the base
	410	# name of the file that contains the anonymous namespace. By default
	411	# anonymous namespaces are hidden.
	412
	413	EXTRACT_ANON_NSPACES = NO
	414
	415	# If the HIDE_UNDOC_MEMBERS tag is set to YES, Doxygen will hide all
	416	# undocumented members of documented classes, files or namespaces.
	417	# If set to NO (the default) these members will be included in the
	418	# various overviews, but no documentation section is generated.
	419	# This option has no effect if EXTRACT_ALL is enabled.
	420
	421	HIDE_UNDOC_MEMBERS = YES
	422
	423	# If the HIDE_UNDOC_CLASSES tag is set to YES, Doxygen will hide all
	424	# undocumented classes that are normally visible in the class hierarchy.
	425	# If set to NO (the default) these classes will be included in the various
	426	# overviews. This option has no effect if EXTRACT_ALL is enabled.
	427
	428	HIDE_UNDOC_CLASSES = YES
	429
	430	# If the HIDE_FRIEND_COMPOUNDS tag is set to YES, Doxygen will hide all
	431	# friend (class\|struct\|union) declarations.
	432	# If set to NO (the default) these declarations will be included in the
	433	# documentation.
	434
	435	HIDE_FRIEND_COMPOUNDS = NO
	436
	437	# If the HIDE_IN_BODY_DOCS tag is set to YES, Doxygen will hide any
	438	# documentation blocks found inside the body of a function.
	439	# If set to NO (the default) these blocks will be appended to the
	440	# function's detailed documentation block.
	441
	442	HIDE_IN_BODY_DOCS = NO
	443
	444	# The INTERNAL_DOCS tag determines if documentation
	445	# that is typed after a \internal command is included. If the tag is set
	446	# to NO (the default) then the documentation will be excluded.
	447	# Set it to YES to include the internal documentation.
	448
	449	INTERNAL_DOCS = NO
	450
	451	# If the CASE_SENSE_NAMES tag is set to NO then Doxygen will only generate
	452	# file names in lower-case letters. If set to YES upper-case letters are also
	453	# allowed. This is useful if you have classes or files whose names only differ
	454	# in case and if your file system supports case sensitive file names. Windows
	455	# and Mac users are advised to set this option to NO.
	456
	457	CASE_SENSE_NAMES = NO
	458
	459	# If the HIDE_SCOPE_NAMES tag is set to NO (the default) then Doxygen
	460	# will show members with their full class and namespace scopes in the
	461	# documentation. If set to YES the scope will be hidden.
	462
	463	HIDE_SCOPE_NAMES = NO
	464
	465	# If the SHOW_INCLUDE_FILES tag is set to YES (the default) then Doxygen
	466	# will put a list of the files that are included by a file in the documentation
	467	# of that file.
	468
	469	SHOW_INCLUDE_FILES = NO
	470
	471	# If the FORCE_LOCAL_INCLUDES tag is set to YES then Doxygen
	472	# will list include files with double quotes in the documentation
	473	# rather than with sharp brackets.
	474
	475	FORCE_LOCAL_INCLUDES = NO
	476
	477	# If the INLINE_INFO tag is set to YES (the default) then a tag [inline]
	478	# is inserted in the documentation for inline members.
	479
	480	INLINE_INFO = YES
	481
	482	# If the SORT_MEMBER_DOCS tag is set to YES (the default) then doxygen
	483	# will sort the (detailed) documentation of file and class members
	484	# alphabetically by member name. If set to NO the members will appear in
	485	# declaration order.
	486
	487	SORT_MEMBER_DOCS = YES
	488
	489	# If the SORT_BRIEF_DOCS tag is set to YES then doxygen will sort the
	490	# brief documentation of file, namespace and class members alphabetically
	491	# by member name. If set to NO (the default) the members will appear in
	492	# declaration order.
	493
	494	SORT_BRIEF_DOCS = YES
	495
	496	# If the SORT_MEMBERS_CTORS_1ST tag is set to YES then doxygen
	497	# will sort the (brief and detailed) documentation of class members so that
	498	# constructors and destructors are listed first. If set to NO (the default)
	499	# the constructors will appear in the respective orders defined by
	500	# SORT_MEMBER_DOCS and SORT_BRIEF_DOCS.
	501	# This tag will be ignored for brief docs if SORT_BRIEF_DOCS is set to NO
	502	# and ignored for detailed docs if SORT_MEMBER_DOCS is set to NO.
	503
	504	SORT_MEMBERS_CTORS_1ST = NO
	505
	506	# If the SORT_GROUP_NAMES tag is set to YES then doxygen will sort the
	507	# hierarchy of group names into alphabetical order. If set to NO (the default)
	508	# the group names will appear in their defined order.
	509
	510	SORT_GROUP_NAMES = NO
	511
	512	# If the SORT_BY_SCOPE_NAME tag is set to YES, the class list will be
	513	# sorted by fully-qualified names, including namespaces. If set to
	514	# NO (the default), the class list will be sorted only by class name,
	515	# not including the namespace part.
	516	# Note: This option is not very useful if HIDE_SCOPE_NAMES is set to YES.
	517	# Note: This option applies only to the class list, not to the
	518	# alphabetical list.
	519
	520	SORT_BY_SCOPE_NAME = YES
	521
	522	# If the STRICT_PROTO_MATCHING option is enabled and doxygen fails to
	523	# do proper type resolution of all parameters of a function it will reject a
	524	# match between the prototype and the implementation of a member function even
	525	# if there is only one candidate or it is obvious which candidate to choose
	526	# by doing a simple string match. By disabling STRICT_PROTO_MATCHING doxygen
	527	# will still accept a match between prototype and implementation in such cases.
	528
	529	STRICT_PROTO_MATCHING = NO
	530
	531	# The GENERATE_TODOLIST tag can be used to enable (YES) or
	532	# disable (NO) the todo list. This list is created by putting \todo
	533	# commands in the documentation.
	534
	535	GENERATE_TODOLIST = YES
	536
	537	# The GENERATE_TESTLIST tag can be used to enable (YES) or
	538	# disable (NO) the test list. This list is created by putting \test
	539	# commands in the documentation.
	540
	541	GENERATE_TESTLIST = YES
	542
	543	# The GENERATE_BUGLIST tag can be used to enable (YES) or
	544	# disable (NO) the bug list. This list is created by putting \bug
	545	# commands in the documentation.
	546
	547	GENERATE_BUGLIST = YES
	548
	549	# The GENERATE_DEPRECATEDLIST tag can be used to enable (YES) or
	550	# disable (NO) the deprecated list. This list is created by putting
	551	# \deprecated commands in the documentation.
	552
	553	GENERATE_DEPRECATEDLIST= YES
	554
	555	# The ENABLED_SECTIONS tag can be used to enable conditional
	556	# documentation sections, marked by \if section-label ... \endif
	557	# and \cond section-label ... \endcond blocks.
	558
	559	ENABLED_SECTIONS =
	560
	561	# The MAX_INITIALIZER_LINES tag determines the maximum number of lines
	562	# the initial value of a variable or macro consists of for it to appear in
	563	# the documentation. If the initializer consists of more lines than specified
	564	# here it will be hidden. Use a value of 0 to hide initializers completely.
	565	# The appearance of the initializer of individual variables and macros in the
	566	# documentation can be controlled using \showinitializer or \hideinitializer
	567	# command in the documentation regardless of this setting.
	568
	569	MAX_INITIALIZER_LINES = 30
	570
	571	# Set the SHOW_USED_FILES tag to NO to disable the list of files generated
	572	# at the bottom of the documentation of classes and structs. If set to YES the
	573	# list will mention the files that were used to generate the documentation.
	574
	575	SHOW_USED_FILES = YES
	576
	577	# Set the SHOW_FILES tag to NO to disable the generation of the Files page.
	578	# This will remove the Files entry from the Quick Index and from the
	579	# Folder Tree View (if specified). The default is YES.
	580
	581	SHOW_FILES = YES
	582
	583	# Set the SHOW_NAMESPACES tag to NO to disable the generation of the
	584	# Namespaces page. This will remove the Namespaces entry from the Quick Index
	585	# and from the Folder Tree View (if specified). The default is YES.
	586
	587	SHOW_NAMESPACES = YES
	588
	589	# The FILE_VERSION_FILTER tag can be used to specify a program or script that
	590	# doxygen should invoke to get the current version for each file (typically from
	591	# the version control system). Doxygen will invoke the program by executing (via
	592	# popen()) the command <command> <input-file>, where <command> is the value of
	593	# the FILE_VERSION_FILTER tag, and <input-file> is the name of an input file
	594	# provided by doxygen. Whatever the program writes to standard output
	595	# is used as the file version. See the manual for examples.
	596
	597	FILE_VERSION_FILTER =
	598
	599	# The LAYOUT_FILE tag can be used to specify a layout file which will be parsed
	600	# by doxygen. The layout file controls the global structure of the generated
	601	# output files in an output format independent way. To create the layout file
	602	# that represents doxygen's defaults, run doxygen with the -l option.
	603	# You can optionally specify a file name after the option, if omitted
	604	# DoxygenLayout.xml will be used as the name of the layout file.
	605
	606	LAYOUT_FILE =
	607
	608	# The CITE_BIB_FILES tag can be used to specify one or more bib files
	609	# containing the references data. This must be a list of .bib files. The
	610	# .bib extension is automatically appended if omitted. Using this command
	611	# requires the bibtex tool to be installed. See also
	612	# http://en.wikipedia.org/wiki/BibTeX for more info. For LaTeX the style
	613	# of the bibliography can be controlled using LATEX_BIB_STYLE. To use this
	614	# feature you need bibtex and perl available in the search path. Do not use
	615	# file names with spaces, bibtex cannot handle them.
	616
	617	CITE_BIB_FILES =
	618
	619	#---------------------------------------------------------------------------
	620	# configuration options related to warning and progress messages
	621	#---------------------------------------------------------------------------
	622
	623	# The QUIET tag can be used to turn on/off the messages that are generated
	624	# by doxygen. Possible values are YES and NO. If left blank NO is used.
	625
	626	QUIET = NO
	627
	628	# The WARNINGS tag can be used to turn on/off the warning messages that are
	629	# generated by doxygen. Possible values are YES and NO. If left blank
	630	# NO is used.
	631
	632	WARNINGS = YES
	633
	634	# If WARN_IF_UNDOCUMENTED is set to YES, then doxygen will generate warnings
	635	# for undocumented members. If EXTRACT_ALL is set to YES then this flag will
	636	# automatically be disabled.
	637
	638	WARN_IF_UNDOCUMENTED = YES
	639
	640	# If WARN_IF_DOC_ERROR is set to YES, doxygen will generate warnings for
	641	# potential errors in the documentation, such as not documenting some
	642	# parameters in a documented function, or documenting parameters that
	643	# don't exist or using markup commands wrongly.
	644
	645	WARN_IF_DOC_ERROR = YES
	646
	647	# The WARN_NO_PARAMDOC option can be enabled to get warnings for
	648	# functions that are documented, but have no documentation for their parameters
	649	# or return value. If set to NO (the default) doxygen will only warn about
	650	# wrong or incomplete parameter documentation, but not about the absence of
	651	# documentation.
	652
	653	WARN_NO_PARAMDOC = NO
	654
	655	# The WARN_FORMAT tag determines the format of the warning messages that
	656	# doxygen can produce. The string should contain the $file, $line, and $text
	657	# tags, which will be replaced by the file and line number from which the
	658	# warning originated and the warning text. Optionally the format may contain
	659	# $version, which will be replaced by the version of the file (if it could
	660	# be obtained via FILE_VERSION_FILTER)
	661
	662	WARN_FORMAT = "$file:$line: $text"
	663
	664	# The WARN_LOGFILE tag can be used to specify a file to which warning
	665	# and error messages should be written. If left blank the output is written
	666	# to stderr.
	667
	668	WARN_LOGFILE =
	669
	670	#---------------------------------------------------------------------------
	671	# configuration options related to the input files
	672	#---------------------------------------------------------------------------
	673
	674	# The INPUT tag can be used to specify the files and/or directories that contain
	675	# documented source files. You may enter file names like "myfile.cpp" or
	676	# directories like "/usr/src/myproject". Separate the files or directories
	677	# with spaces.
	678
	679	INPUT = ../include/ \
	680	../doc/dox.h \
	681	../code/BaseImporter.h
	682
	683	# This tag can be used to specify the character encoding of the source files
	684	# that doxygen parses. Internally doxygen uses the UTF-8 encoding, which is
	685	# also the default input encoding. Doxygen uses libiconv (or the iconv built
	686	# into libc) for the transcoding. See http://www.gnu.org/software/libiconv for
	687	# the list of possible encodings.
	688
	689	INPUT_ENCODING = UTF-8
	690
	691	# If the value of the INPUT tag contains directories, you can use the
	692	# FILE_PATTERNS tag to specify one or more wildcard pattern (like *.cpp
	693	# and *.h) to filter out the source-files in the directories. If left
	694	# blank the following patterns are tested:
	695	# .c .cc .cxx .cpp .c++ .d .java .ii .ixx .ipp .i++ .inl .h .hh
	696	# .hxx .hpp .h++ .idl .odl .cs .php .php3 .inc .m .mm .dox *.py
	697	# .f90 .f .for .vhd *.vhdl
	698
	699	FILE_PATTERNS = *.c \
	700	*.cc \
	701	*.cxx \
	702	*.cpp \
	703	*.c++ \
	704	*.d \
	705	*.java \
	706	*.ii \
	707	*.ixx \
	708	*.ipp \
	709	*.i++ \
	710	*.inl \
	711	*.h \
	712	*.hh \
	713	*.hxx \
	714	*.hpp \
	715	*.h++ \
	716	*.idl \
	717	*.odl \
	718	*.cs \
	719	*.php \
	720	*.php3 \
	721	*.inc \
	722	*.m \
	723	*.mm \
	724	*.dox \
	725	*.py
	726
	727	# The RECURSIVE tag can be used to turn specify whether or not subdirectories
	728	# should be searched for input files as well. Possible values are YES and NO.
	729	# If left blank NO is used.
	730
	731	RECURSIVE = YES
	732
	733	# The EXCLUDE tag can be used to specify files and/or directories that should be
	734	# excluded from the INPUT source files. This way you can easily exclude a
	735	# subdirectory from a directory tree whose root is specified with the INPUT tag.
	736	# Note that relative paths are relative to the directory from which doxygen is
	737	# run.
	738
	739	EXCLUDE =
	740
	741	# The EXCLUDE_SYMLINKS tag can be used to select whether or not files or
	742	# directories that are symbolic links (a Unix file system feature) are excluded
	743	# from the input.
	744
	745	EXCLUDE_SYMLINKS = NO
	746
	747	# If the value of the INPUT tag contains directories, you can use the
	748	# EXCLUDE_PATTERNS tag to specify one or more wildcard patterns to exclude
	749	# certain files from those directories. Note that the wildcards are matched
	750	# against the file with absolute path, so to exclude all test directories
	751	# for example use the pattern /test/
	752
	753	EXCLUDE_PATTERNS = /.svn/ \
	754	*/.svn
	755
	756	# The EXCLUDE_SYMBOLS tag can be used to specify one or more symbol names
	757	# (namespaces, classes, functions, etc.) that should be excluded from the
	758	# output. The symbol name can be a fully qualified name, a word, or if the
	759	# wildcard * is used, a substring. Examples: ANamespace, AClass,
	760	# AClass::ANamespace, ANamespace::*Test
	761
	762	EXCLUDE_SYMBOLS =
	763
	764	# The EXAMPLE_PATH tag can be used to specify one or more files or
	765	# directories that contain example code fragments that are included (see
	766	# the \include command).
	767
	768	EXAMPLE_PATH =
	769
	770	# If the value of the EXAMPLE_PATH tag contains directories, you can use the
	771	# EXAMPLE_PATTERNS tag to specify one or more wildcard pattern (like *.cpp
	772	# and *.h) to filter out the source-files in the directories. If left
	773	# blank all files are included.
	774
	775	EXAMPLE_PATTERNS = *
	776
	777	# If the EXAMPLE_RECURSIVE tag is set to YES then subdirectories will be
	778	# searched for input files to be used with the \include or \dontinclude
	779	# commands irrespective of the value of the RECURSIVE tag.
	780	# Possible values are YES and NO. If left blank NO is used.
	781
	782	EXAMPLE_RECURSIVE = NO
	783
	784	# The IMAGE_PATH tag can be used to specify one or more files or
	785	# directories that contain image that are included in the documentation (see
	786	# the \image command).
	787
	788	IMAGE_PATH =
	789
	790	# The INPUT_FILTER tag can be used to specify a program that doxygen should
	791	# invoke to filter for each input file. Doxygen will invoke the filter program
	792	# by executing (via popen()) the command <filter> <input-file>, where <filter>
	793	# is the value of the INPUT_FILTER tag, and <input-file> is the name of an
	794	# input file. Doxygen will then use the output that the filter program writes
	795	# to standard output. If FILTER_PATTERNS is specified, this tag will be
	796	# ignored.
	797
	798	INPUT_FILTER =
	799
	800	# The FILTER_PATTERNS tag can be used to specify filters on a per file pattern
	801	# basis. Doxygen will compare the file name with each pattern and apply the
	802	# filter if there is a match. The filters are a list of the form:
	803	# pattern=filter (like *.cpp=my_cpp_filter). See INPUT_FILTER for further
	804	# info on how filters are used. If FILTER_PATTERNS is empty or if
	805	# non of the patterns match the file name, INPUT_FILTER is applied.
	806
	807	FILTER_PATTERNS =
	808
	809	# If the FILTER_SOURCE_FILES tag is set to YES, the input filter (if set using
	810	# INPUT_FILTER) will be used to filter the input files when producing source
	811	# files to browse (i.e. when SOURCE_BROWSER is set to YES).
	812
	813	FILTER_SOURCE_FILES = NO
	814
	815	# The FILTER_SOURCE_PATTERNS tag can be used to specify source filters per file
	816	# pattern. A pattern will override the setting for FILTER_PATTERN (if any)
	817	# and it is also possible to disable source filtering for a specific pattern
	818	# using *.ext= (so without naming a filter). This option only has effect when
	819	# FILTER_SOURCE_FILES is enabled.
	820
	821	FILTER_SOURCE_PATTERNS =
	822
	823	# If the USE_MD_FILE_AS_MAINPAGE tag refers to the name of a markdown file that
	824	# is part of the input, its contents will be placed on the main page (index.html).
	825	# This can be useful if you have a project on for instance GitHub and want reuse
	826	# the introduction page also for the doxygen output.
	827
	828	USE_MDFILE_AS_MAINPAGE =
	829
	830	#---------------------------------------------------------------------------
	831	# configuration options related to source browsing
	832	#---------------------------------------------------------------------------
	833
	834	# If the SOURCE_BROWSER tag is set to YES then a list of source files will
	835	# be generated. Documented entities will be cross-referenced with these sources.
	836	# Note: To get rid of all source code in the generated output, make sure also
	837	# VERBATIM_HEADERS is set to NO.
	838
	839	SOURCE_BROWSER = NO
	840
	841	# Setting the INLINE_SOURCES tag to YES will include the body
	842	# of functions and classes directly in the documentation.
	843
	844	INLINE_SOURCES = NO
	845
	846	# Setting the STRIP_CODE_COMMENTS tag to YES (the default) will instruct
	847	# doxygen to hide any special comment blocks from generated source code
	848	# fragments. Normal C, C++ and Fortran comments will always remain visible.
	849
	850	STRIP_CODE_COMMENTS = YES
	851
	852	# If the REFERENCED_BY_RELATION tag is set to YES
	853	# then for each documented function all documented
	854	# functions referencing it will be listed.
	855
	856	REFERENCED_BY_RELATION = NO
	857
	858	# If the REFERENCES_RELATION tag is set to YES
	859	# then for each documented function all documented entities
	860	# called/used by that function will be listed.
	861
	862	REFERENCES_RELATION = NO
	863
	864	# If the REFERENCES_LINK_SOURCE tag is set to YES (the default)
	865	# and SOURCE_BROWSER tag is set to YES, then the hyperlinks from
	866	# functions in REFERENCES_RELATION and REFERENCED_BY_RELATION lists will
	867	# link to the source code. Otherwise they will link to the documentation.
	868
	869	REFERENCES_LINK_SOURCE = YES
	870
	871	# If the USE_HTAGS tag is set to YES then the references to source code
	872	# will point to the HTML generated by the htags(1) tool instead of doxygen
	873	# built-in source browser. The htags tool is part of GNU's global source
	874	# tagging system (see http://www.gnu.org/software/global/global.html). You
	875	# will need version 4.8.6 or higher.
	876
	877	USE_HTAGS = NO
	878
	879	# If the VERBATIM_HEADERS tag is set to YES (the default) then Doxygen
	880	# will generate a verbatim copy of the header file for each class for
	881	# which an include is specified. Set to NO to disable this.
	882
	883	VERBATIM_HEADERS = NO
	884
	885	#---------------------------------------------------------------------------
	886	# configuration options related to the alphabetical class index
	887	#---------------------------------------------------------------------------
	888
	889	# If the ALPHABETICAL_INDEX tag is set to YES, an alphabetical index
	890	# of all compounds will be generated. Enable this if the project
	891	# contains a lot of classes, structs, unions or interfaces.
	892
	893	ALPHABETICAL_INDEX = YES
	894
	895	# If the alphabetical index is enabled (see ALPHABETICAL_INDEX) then
	896	# the COLS_IN_ALPHA_INDEX tag can be used to specify the number of columns
	897	# in which this list will be split (can be a number in the range [1..20])
	898
	899	COLS_IN_ALPHA_INDEX = 5
	900
	901	# In case all classes in a project start with a common prefix, all
	902	# classes will be put under the same header in the alphabetical index.
	903	# The IGNORE_PREFIX tag can be used to specify one or more prefixes that
	904	# should be ignored while generating the index headers.
	905
	906	IGNORE_PREFIX =
	907
	908	#---------------------------------------------------------------------------
	909	# configuration options related to the HTML output
	910	#---------------------------------------------------------------------------
	911
	912	# If the GENERATE_HTML tag is set to YES (the default) Doxygen will
	913	# generate HTML output.
	914
	915	GENERATE_HTML = YES
	916
	917	# The HTML_OUTPUT tag is used to specify where the HTML docs will be put.
	918	# If a relative path is entered the value of OUTPUT_DIRECTORY will be
	919	# put in front of it. If left blank `html' will be used as the default path.
	920
	921	HTML_OUTPUT = AssimpDoc_Html
	922
	923	# The HTML_FILE_EXTENSION tag can be used to specify the file extension for
	924	# each generated HTML page (for example: .htm,.php,.asp). If it is left blank
	925	# doxygen will generate files with .html extension.
	926
	927	HTML_FILE_EXTENSION = .html
	928
	929	# The HTML_HEADER tag can be used to specify a personal HTML header for
	930	# each generated HTML page. If it is left blank doxygen will generate a
	931	# standard header. Note that when using a custom header you are responsible
	932	# for the proper inclusion of any scripts and style sheets that doxygen
	933	# needs, which is dependent on the configuration options used.
	934	# It is advised to generate a default header using "doxygen -w html
	935	# header.html footer.html stylesheet.css YourConfigFile" and then modify
	936	# that header. Note that the header is subject to change so you typically
	937	# have to redo this when upgrading to a newer version of doxygen or when
	938	# changing the value of configuration settings such as GENERATE_TREEVIEW!
	939
	940	HTML_HEADER =
	941
	942	# The HTML_FOOTER tag can be used to specify a personal HTML footer for
	943	# each generated HTML page. If it is left blank doxygen will generate a
	944	# standard footer.
	945
	946	HTML_FOOTER =
	947
	948	# The HTML_STYLESHEET tag can be used to specify a user-defined cascading
	949	# style sheet that is used by each HTML page. It can be used to
	950	# fine-tune the look of the HTML output. If left blank doxygen will
	951	# generate a default style sheet. Note that it is recommended to use
	952	# HTML_EXTRA_STYLESHEET instead of this one, as it is more robust and this
	953	# tag will in the future become obsolete.
	954
	955	HTML_STYLESHEET = style.css
	956
	957	# The HTML_EXTRA_STYLESHEET tag can be used to specify an additional
	958	# user-defined cascading style sheet that is included after the standard
	959	# style sheets created by doxygen. Using this option one can overrule
	960	# certain style aspects. This is preferred over using HTML_STYLESHEET
	961	# since it does not replace the standard style sheet and is therefor more
	962	# robust against future updates. Doxygen will copy the style sheet file to
	963	# the output directory.
	964
	965	HTML_EXTRA_STYLESHEET =
	966
	967	# The HTML_EXTRA_FILES tag can be used to specify one or more extra images or
	968	# other source files which should be copied to the HTML output directory. Note
	969	# that these files will be copied to the base HTML output directory. Use the
	970	# $relpath$ marker in the HTML_HEADER and/or HTML_FOOTER files to load these
	971	# files. In the HTML_STYLESHEET file, use the file name only. Also note that
	972	# the files will be copied as-is; there are no commands or markers available.
	973
	974	HTML_EXTRA_FILES =
	975
	976	# The HTML_COLORSTYLE_HUE tag controls the color of the HTML output.
	977	# Doxygen will adjust the colors in the style sheet and background images
	978	# according to this color. Hue is specified as an angle on a colorwheel,
	979	# see http://en.wikipedia.org/wiki/Hue for more information.
	980	# For instance the value 0 represents red, 60 is yellow, 120 is green,
	981	# 180 is cyan, 240 is blue, 300 purple, and 360 is red again.
	982	# The allowed range is 0 to 359.
	983
	984	HTML_COLORSTYLE_HUE = 220
	985
	986	# The HTML_COLORSTYLE_SAT tag controls the purity (or saturation) of
	987	# the colors in the HTML output. For a value of 0 the output will use
	988	# grayscales only. A value of 255 will produce the most vivid colors.
	989
	990	HTML_COLORSTYLE_SAT = 100
	991
	992	# The HTML_COLORSTYLE_GAMMA tag controls the gamma correction applied to
	993	# the luminance component of the colors in the HTML output. Values below
	994	# 100 gradually make the output lighter, whereas values above 100 make
	995	# the output darker. The value divided by 100 is the actual gamma applied,
	996	# so 80 represents a gamma of 0.8, The value 220 represents a gamma of 2.2,
	997	# and 100 does not change the gamma.
	998
	999	HTML_COLORSTYLE_GAMMA = 80
	1000
	1001	# If the HTML_TIMESTAMP tag is set to YES then the footer of each generated HTML
	1002	# page will contain the date and time when the page was generated. Setting
	1003	# this to NO can help when comparing the output of multiple runs.
	1004
	1005	HTML_TIMESTAMP = YES
	1006
	1007	# If the HTML_DYNAMIC_SECTIONS tag is set to YES then the generated HTML
	1008	# documentation will contain sections that can be hidden and shown after the
	1009	# page has loaded.
	1010
	1011	HTML_DYNAMIC_SECTIONS = NO
	1012
	1013	# With HTML_INDEX_NUM_ENTRIES one can control the preferred number of
	1014	# entries shown in the various tree structured indices initially; the user
	1015	# can expand and collapse entries dynamically later on. Doxygen will expand
	1016	# the tree to such a level that at most the specified number of entries are
	1017	# visible (unless a fully collapsed tree already exceeds this amount).
	1018	# So setting the number of entries 1 will produce a full collapsed tree by
	1019	# default. 0 is a special value representing an infinite number of entries
	1020	# and will result in a full expanded tree by default.
	1021
	1022	HTML_INDEX_NUM_ENTRIES = 100
	1023
	1024	# If the GENERATE_DOCSET tag is set to YES, additional index files
	1025	# will be generated that can be used as input for Apple's Xcode 3
	1026	# integrated development environment, introduced with OSX 10.5 (Leopard).
	1027	# To create a documentation set, doxygen will generate a Makefile in the
	1028	# HTML output directory. Running make will produce the docset in that
	1029	# directory and running "make install" will install the docset in
	1030	# ~/Library/Developer/Shared/Documentation/DocSets so that Xcode will find
	1031	# it at startup.
	1032	# See http://developer.apple.com/tools/creatingdocsetswithdoxygen.html
	1033	# for more information.
	1034
	1035	GENERATE_DOCSET = NO
	1036
	1037	# When GENERATE_DOCSET tag is set to YES, this tag determines the name of the
	1038	# feed. A documentation feed provides an umbrella under which multiple
	1039	# documentation sets from a single provider (such as a company or product suite)
	1040	# can be grouped.
	1041
	1042	DOCSET_FEEDNAME = "Doxygen generated docs"
	1043
	1044	# When GENERATE_DOCSET tag is set to YES, this tag specifies a string that
	1045	# should uniquely identify the documentation set bundle. This should be a
	1046	# reverse domain-name style string, e.g. com.mycompany.MyDocSet. Doxygen
	1047	# will append .docset to the name.
	1048
	1049	DOCSET_BUNDLE_ID = org.doxygen.Project
	1050
	1051	# When GENERATE_PUBLISHER_ID tag specifies a string that should uniquely
	1052	# identify the documentation publisher. This should be a reverse domain-name
	1053	# style string, e.g. com.mycompany.MyDocSet.documentation.
	1054
	1055	DOCSET_PUBLISHER_ID = org.doxygen.Publisher
	1056
	1057	# The GENERATE_PUBLISHER_NAME tag identifies the documentation publisher.
	1058
	1059	DOCSET_PUBLISHER_NAME = Publisher
	1060
	1061	# If the GENERATE_HTMLHELP tag is set to YES, additional index files
	1062	# will be generated that can be used as input for tools like the
	1063	# Microsoft HTML help workshop to generate a compiled HTML help file (.chm)
	1064	# of the generated HTML documentation.
	1065
	1066	GENERATE_HTMLHELP = YES
	1067
	1068	# If the GENERATE_HTMLHELP tag is set to YES, the CHM_FILE tag can
	1069	# be used to specify the file name of the resulting .chm file. You
	1070	# can add a path in front of the file if the result should not be
	1071	# written to the html output directory.
	1072
	1073	CHM_FILE = AssimpDoc.chm
	1074
	1075	# If the GENERATE_HTMLHELP tag is set to YES, the HHC_LOCATION tag can
	1076	# be used to specify the location (absolute path including file name) of
	1077	# the HTML help compiler (hhc.exe). If non-empty doxygen will try to run
	1078	# the HTML help compiler on the generated index.hhp.
	1079
	1080	HHC_LOCATION = "C:\Program Files (x86)\HTML Help Workshop/hhc.exe"
	1081
	1082	# If the GENERATE_HTMLHELP tag is set to YES, the GENERATE_CHI flag
	1083	# controls if a separate .chi index file is generated (YES) or that
	1084	# it should be included in the master .chm file (NO).
	1085
	1086	GENERATE_CHI = NO
	1087
	1088	# If the GENERATE_HTMLHELP tag is set to YES, the CHM_INDEX_ENCODING
	1089	# is used to encode HtmlHelp index (hhk), content (hhc) and project file
	1090	# content.
	1091
	1092	CHM_INDEX_ENCODING =
	1093
	1094	# If the GENERATE_HTMLHELP tag is set to YES, the BINARY_TOC flag
	1095	# controls whether a binary table of contents is generated (YES) or a
	1096	# normal table of contents (NO) in the .chm file.
	1097
	1098	BINARY_TOC = NO
	1099
	1100	# The TOC_EXPAND flag can be set to YES to add extra items for group members
	1101	# to the contents of the HTML help documentation and to the tree view.
	1102
	1103	TOC_EXPAND = NO
	1104
	1105	# If the GENERATE_QHP tag is set to YES and both QHP_NAMESPACE and
	1106	# QHP_VIRTUAL_FOLDER are set, an additional index file will be generated
	1107	# that can be used as input for Qt's qhelpgenerator to generate a
	1108	# Qt Compressed Help (.qch) of the generated HTML documentation.
	1109
	1110	GENERATE_QHP = NO
	1111
	1112	# If the QHG_LOCATION tag is specified, the QCH_FILE tag can
	1113	# be used to specify the file name of the resulting .qch file.
	1114	# The path specified is relative to the HTML output folder.
	1115
	1116	QCH_FILE =
	1117
	1118	# The QHP_NAMESPACE tag specifies the namespace to use when generating
	1119	# Qt Help Project output. For more information please see
	1120	# http://doc.trolltech.com/qthelpproject.html#namespace
	1121
	1122	QHP_NAMESPACE = org.doxygen.Project
	1123
	1124	# The QHP_VIRTUAL_FOLDER tag specifies the namespace to use when generating
	1125	# Qt Help Project output. For more information please see
	1126	# http://doc.trolltech.com/qthelpproject.html#virtual-folders
	1127
	1128	QHP_VIRTUAL_FOLDER = doc
	1129
	1130	# If QHP_CUST_FILTER_NAME is set, it specifies the name of a custom filter to
	1131	# add. For more information please see
	1132	# http://doc.trolltech.com/qthelpproject.html#custom-filters
	1133
	1134	QHP_CUST_FILTER_NAME =
	1135
	1136	# The QHP_CUST_FILT_ATTRS tag specifies the list of the attributes of the
	1137	# custom filter to add. For more information please see
	1138	# <a href="http://doc.trolltech.com/qthelpproject.html#custom-filters">
	1139	# Qt Help Project / Custom Filters</a>.
	1140
	1141	QHP_CUST_FILTER_ATTRS =
	1142
	1143	# The QHP_SECT_FILTER_ATTRS tag specifies the list of the attributes this
	1144	# project's
	1145	# filter section matches.
	1146	# <a href="http://doc.trolltech.com/qthelpproject.html#filter-attributes">
	1147	# Qt Help Project / Filter Attributes</a>.
	1148
	1149	QHP_SECT_FILTER_ATTRS =
	1150
	1151	# If the GENERATE_QHP tag is set to YES, the QHG_LOCATION tag can
	1152	# be used to specify the location of Qt's qhelpgenerator.
	1153	# If non-empty doxygen will try to run qhelpgenerator on the generated
	1154	# .qhp file.
	1155
	1156	QHG_LOCATION =
	1157
	1158	# If the GENERATE_ECLIPSEHELP tag is set to YES, additional index files
	1159	# will be generated, which together with the HTML files, form an Eclipse help
	1160	# plugin. To install this plugin and make it available under the help contents
	1161	# menu in Eclipse, the contents of the directory containing the HTML and XML
	1162	# files needs to be copied into the plugins directory of eclipse. The name of
	1163	# the directory within the plugins directory should be the same as
	1164	# the ECLIPSE_DOC_ID value. After copying Eclipse needs to be restarted before
	1165	# the help appears.
	1166
	1167	GENERATE_ECLIPSEHELP = NO
	1168
	1169	# A unique identifier for the eclipse help plugin. When installing the plugin
	1170	# the directory name containing the HTML and XML files should also have
	1171	# this name.
	1172
	1173	ECLIPSE_DOC_ID = org.doxygen.Project
	1174
	1175	# The DISABLE_INDEX tag can be used to turn on/off the condensed index (tabs)
	1176	# at top of each HTML page. The value NO (the default) enables the index and
	1177	# the value YES disables it. Since the tabs have the same information as the
	1178	# navigation tree you can set this option to NO if you already set
	1179	# GENERATE_TREEVIEW to YES.
	1180
	1181	DISABLE_INDEX = NO
	1182
	1183	# The GENERATE_TREEVIEW tag is used to specify whether a tree-like index
	1184	# structure should be generated to display hierarchical information.
	1185	# If the tag value is set to YES, a side panel will be generated
	1186	# containing a tree-like index structure (just like the one that
	1187	# is generated for HTML Help). For this to work a browser that supports
	1188	# JavaScript, DHTML, CSS and frames is required (i.e. any modern browser).
	1189	# Windows users are probably better off using the HTML help feature.
	1190	# Since the tree basically has the same information as the tab index you
	1191	# could consider to set DISABLE_INDEX to NO when enabling this option.
	1192
	1193	GENERATE_TREEVIEW = YES
	1194
	1195	# The ENUM_VALUES_PER_LINE tag can be used to set the number of enum values
	1196	# (range [0,1..20]) that doxygen will group on one line in the generated HTML
	1197	# documentation. Note that a value of 0 will completely suppress the enum
	1198	# values from appearing in the overview section.
	1199
	1200	ENUM_VALUES_PER_LINE = 4
	1201
	1202	# If the treeview is enabled (see GENERATE_TREEVIEW) then this tag can be
	1203	# used to set the initial width (in pixels) of the frame in which the tree
	1204	# is shown.
	1205
	1206	TREEVIEW_WIDTH = 250
	1207
	1208	# When the EXT_LINKS_IN_WINDOW option is set to YES doxygen will open
	1209	# links to external symbols imported via tag files in a separate window.
	1210
	1211	EXT_LINKS_IN_WINDOW = NO
	1212
	1213	# Use this tag to change the font size of Latex formulas included
	1214	# as images in the HTML documentation. The default is 10. Note that
	1215	# when you change the font size after a successful doxygen run you need
	1216	# to manually remove any form_*.png images from the HTML output directory
	1217	# to force them to be regenerated.
	1218
	1219	FORMULA_FONTSIZE = 10
	1220
	1221	# Use the FORMULA_TRANPARENT tag to determine whether or not the images
	1222	# generated for formulas are transparent PNGs. Transparent PNGs are
	1223	# not supported properly for IE 6.0, but are supported on all modern browsers.
	1224	# Note that when changing this option you need to delete any form_*.png files
	1225	# in the HTML output before the changes have effect.
	1226
	1227	FORMULA_TRANSPARENT = YES
	1228
	1229	# Enable the USE_MATHJAX option to render LaTeX formulas using MathJax
	1230	# (see http://www.mathjax.org) which uses client side Javascript for the
	1231	# rendering instead of using prerendered bitmaps. Use this if you do not
	1232	# have LaTeX installed or if you want to formulas look prettier in the HTML
	1233	# output. When enabled you may also need to install MathJax separately and
	1234	# configure the path to it using the MATHJAX_RELPATH option.
	1235
	1236	USE_MATHJAX = NO
	1237
	1238	# When MathJax is enabled you can set the default output format to be used for
	1239	# thA MathJax output. Supported types are HTML-CSS, NativeMML (i.e. MathML) and
	1240	# SVG. The default value is HTML-CSS, which is slower, but has the best
	1241	# compatibility.
	1242
	1243	MATHJAX_FORMAT = HTML-CSS
	1244
	1245	# When MathJax is enabled you need to specify the location relative to the
	1246	# HTML output directory using the MATHJAX_RELPATH option. The destination
	1247	# directory should contain the MathJax.js script. For instance, if the mathjax
	1248	# directory is located at the same level as the HTML output directory, then
	1249	# MATHJAX_RELPATH should be ../mathjax. The default value points to
	1250	# the MathJax Content Delivery Network so you can quickly see the result without
	1251	# installing MathJax. However, it is strongly recommended to install a local
	1252	# copy of MathJax from http://www.mathjax.org before deployment.
	1253
	1254	MATHJAX_RELPATH = http://cdn.mathjax.org/mathjax/latest
	1255
	1256	# The MATHJAX_EXTENSIONS tag can be used to specify one or MathJax extension
	1257	# names that should be enabled during MathJax rendering.
	1258
	1259	MATHJAX_EXTENSIONS =
	1260
	1261	# When the SEARCHENGINE tag is enabled doxygen will generate a search box
	1262	# for the HTML output. The underlying search engine uses javascript
	1263	# and DHTML and should work on any modern browser. Note that when using
	1264	# HTML help (GENERATE_HTMLHELP), Qt help (GENERATE_QHP), or docsets
	1265	# (GENERATE_DOCSET) there is already a search function so this one should
	1266	# typically be disabled. For large projects the javascript based search engine
	1267	# can be slow, then enabling SERVER_BASED_SEARCH may provide a better solution.
	1268
	1269	SEARCHENGINE = NO
	1270
	1271	# When the SERVER_BASED_SEARCH tag is enabled the search engine will be
	1272	# implemented using a web server instead of a web client using Javascript.
	1273	# There are two flavours of web server based search depending on the
	1274	# EXTERNAL_SEARCH setting. When disabled, doxygen will generate a PHP script for
	1275	# searching and an index file used by the script. When EXTERNAL_SEARCH is
	1276	# enabled the indexing and searching needs to be provided by external tools.
	1277	# See the manual for details.
	1278
	1279	SERVER_BASED_SEARCH = NO
	1280
	1281	# When EXTERNAL_SEARCH is enabled doxygen will no longer generate the PHP
	1282	# script for searching. Instead the search results are written to an XML file
	1283	# which needs to be processed by an external indexer. Doxygen will invoke an
	1284	# external search engine pointed to by the SEARCHENGINE_URL option to obtain
	1285	# the search results. Doxygen ships with an example indexer (doxyindexer) and
	1286	# search engine (doxysearch.cgi) which are based on the open source search engine
	1287	# library Xapian. See the manual for configuration details.
	1288
	1289	EXTERNAL_SEARCH = NO
	1290
	1291	# The SEARCHENGINE_URL should point to a search engine hosted by a web server
	1292	# which will returned the search results when EXTERNAL_SEARCH is enabled.
	1293	# Doxygen ships with an example search engine (doxysearch) which is based on
	1294	# the open source search engine library Xapian. See the manual for configuration
	1295	# details.
	1296
	1297	SEARCHENGINE_URL =
	1298
	1299	# When SERVER_BASED_SEARCH and EXTERNAL_SEARCH are both enabled the unindexed
	1300	# search data is written to a file for indexing by an external tool. With the
	1301	# SEARCHDATA_FILE tag the name of this file can be specified.
	1302
	1303	SEARCHDATA_FILE = searchdata.xml
	1304
	1305	# When SERVER_BASED_SEARCH AND EXTERNAL_SEARCH are both enabled the
	1306	# EXTERNAL_SEARCH_ID tag can be used as an identifier for the project. This is
	1307	# useful in combination with EXTRA_SEARCH_MAPPINGS to search through multiple
	1308	# projects and redirect the results back to the right project.
	1309
	1310	EXTERNAL_SEARCH_ID =
	1311
	1312	# The EXTRA_SEARCH_MAPPINGS tag can be used to enable searching through doxygen
	1313	# projects other than the one defined by this configuration file, but that are
	1314	# all added to the same external search index. Each project needs to have a
	1315	# unique id set via EXTERNAL_SEARCH_ID. The search mapping then maps the id
	1316	# of to a relative location where the documentation can be found.
	1317	# The format is: EXTRA_SEARCH_MAPPINGS = id1=loc1 id2=loc2 ...
	1318
	1319	EXTRA_SEARCH_MAPPINGS =
	1320
	1321	#---------------------------------------------------------------------------
	1322	# configuration options related to the LaTeX output
	1323	#---------------------------------------------------------------------------
	1324
	1325	# If the GENERATE_LATEX tag is set to YES (the default) Doxygen will
	1326	# generate Latex output.
	1327
	1328	GENERATE_LATEX = NO
	1329
	1330	# The LATEX_OUTPUT tag is used to specify where the LaTeX docs will be put.
	1331	# If a relative path is entered the value of OUTPUT_DIRECTORY will be
	1332	# put in front of it. If left blank `latex' will be used as the default path.
	1333
	1334	LATEX_OUTPUT = latex
	1335
	1336	# The LATEX_CMD_NAME tag can be used to specify the LaTeX command name to be
	1337	# invoked. If left blank `latex' will be used as the default command name.
	1338	# Note that when enabling USE_PDFLATEX this option is only used for
	1339	# generating bitmaps for formulas in the HTML output, but not in the
	1340	# Makefile that is written to the output directory.
	1341
	1342	LATEX_CMD_NAME = latex
	1343
	1344	# The MAKEINDEX_CMD_NAME tag can be used to specify the command name to
	1345	# generate index for LaTeX. If left blank `makeindex' will be used as the
	1346	# default command name.
	1347
	1348	MAKEINDEX_CMD_NAME = makeindex
	1349
	1350	# If the COMPACT_LATEX tag is set to YES Doxygen generates more compact
	1351	# LaTeX documents. This may be useful for small projects and may help to
	1352	# save some trees in general.
	1353
	1354	COMPACT_LATEX = NO
	1355
	1356	# The PAPER_TYPE tag can be used to set the paper type that is used
	1357	# by the printer. Possible values are: a4, letter, legal and
	1358	# executive. If left blank a4wide will be used.
	1359
	1360	PAPER_TYPE = a4wide
	1361
	1362	# The EXTRA_PACKAGES tag can be to specify one or more names of LaTeX
	1363	# packages that should be included in the LaTeX output.
	1364
	1365	EXTRA_PACKAGES =
	1366
	1367	# The LATEX_HEADER tag can be used to specify a personal LaTeX header for
	1368	# the generated latex document. The header should contain everything until
	1369	# the first chapter. If it is left blank doxygen will generate a
	1370	# standard header. Notice: only use this tag if you know what you are doing!
	1371
	1372	LATEX_HEADER =
	1373
	1374	# The LATEX_FOOTER tag can be used to specify a personal LaTeX footer for
	1375	# the generated latex document. The footer should contain everything after
	1376	# the last chapter. If it is left blank doxygen will generate a
	1377	# standard footer. Notice: only use this tag if you know what you are doing!
	1378
	1379	LATEX_FOOTER =
	1380
	1381	# If the PDF_HYPERLINKS tag is set to YES, the LaTeX that is generated
	1382	# is prepared for conversion to pdf (using ps2pdf). The pdf file will
	1383	# contain links (just like the HTML output) instead of page references
	1384	# This makes the output suitable for online browsing using a pdf viewer.
	1385
	1386	PDF_HYPERLINKS = NO
	1387
	1388	# If the USE_PDFLATEX tag is set to YES, pdflatex will be used instead of
	1389	# plain latex in the generated Makefile. Set this option to YES to get a
	1390	# higher quality PDF documentation.
	1391
	1392	USE_PDFLATEX = NO
	1393
	1394	# If the LATEX_BATCHMODE tag is set to YES, doxygen will add the \\batchmode.
	1395	# command to the generated LaTeX files. This will instruct LaTeX to keep
	1396	# running if errors occur, instead of asking the user for help.
	1397	# This option is also used when generating formulas in HTML.
	1398
	1399	LATEX_BATCHMODE = NO
	1400
	1401	# If LATEX_HIDE_INDICES is set to YES then doxygen will not
	1402	# include the index chapters (such as File Index, Compound Index, etc.)
	1403	# in the output.
	1404
	1405	LATEX_HIDE_INDICES = NO
	1406
	1407	# If LATEX_SOURCE_CODE is set to YES then doxygen will include
	1408	# source code with syntax highlighting in the LaTeX output.
	1409	# Note that which sources are shown also depends on other settings
	1410	# such as SOURCE_BROWSER.
	1411
	1412	LATEX_SOURCE_CODE = NO
	1413
	1414	# The LATEX_BIB_STYLE tag can be used to specify the style to use for the
	1415	# bibliography, e.g. plainnat, or ieeetr. The default style is "plain". See
	1416	# http://en.wikipedia.org/wiki/BibTeX for more info.
	1417
	1418	LATEX_BIB_STYLE = plain
	1419
	1420	#---------------------------------------------------------------------------
	1421	# configuration options related to the RTF output
	1422	#---------------------------------------------------------------------------
	1423
	1424	# If the GENERATE_RTF tag is set to YES Doxygen will generate RTF output
	1425	# The RTF output is optimized for Word 97 and may not look very pretty with
	1426	# other RTF readers or editors.
	1427
	1428	GENERATE_RTF = NO
	1429
	1430	# The RTF_OUTPUT tag is used to specify where the RTF docs will be put.
	1431	# If a relative path is entered the value of OUTPUT_DIRECTORY will be
	1432	# put in front of it. If left blank `rtf' will be used as the default path.
	1433
	1434	RTF_OUTPUT = rtf
	1435
	1436	# If the COMPACT_RTF tag is set to YES Doxygen generates more compact
	1437	# RTF documents. This may be useful for small projects and may help to
	1438	# save some trees in general.
	1439
	1440	COMPACT_RTF = NO
	1441
	1442	# If the RTF_HYPERLINKS tag is set to YES, the RTF that is generated
	1443	# will contain hyperlink fields. The RTF file will
	1444	# contain links (just like the HTML output) instead of page references.
	1445	# This makes the output suitable for online browsing using WORD or other
	1446	# programs which support those fields.
	1447	# Note: wordpad (write) and others do not support links.
	1448
	1449	RTF_HYPERLINKS = NO
	1450
	1451	# Load style sheet definitions from file. Syntax is similar to doxygen's
	1452	# config file, i.e. a series of assignments. You only have to provide
	1453	# replacements, missing definitions are set to their default value.
	1454
	1455	RTF_STYLESHEET_FILE =
	1456
	1457	# Set optional variables used in the generation of an rtf document.
	1458	# Syntax is similar to doxygen's config file.
	1459
	1460	RTF_EXTENSIONS_FILE =
	1461
	1462	#---------------------------------------------------------------------------
	1463	# configuration options related to the man page output
	1464	#---------------------------------------------------------------------------
	1465
	1466	# If the GENERATE_MAN tag is set to YES (the default) Doxygen will
	1467	# generate man pages
	1468
	1469	GENERATE_MAN = NO
	1470
	1471	# The MAN_OUTPUT tag is used to specify where the man pages will be put.
	1472	# If a relative path is entered the value of OUTPUT_DIRECTORY will be
	1473	# put in front of it. If left blank `man' will be used as the default path.
	1474
	1475	MAN_OUTPUT = man
	1476
	1477	# The MAN_EXTENSION tag determines the extension that is added to
	1478	# the generated man pages (default is the subroutine's section .3)
	1479
	1480	MAN_EXTENSION = .3
	1481
	1482	# If the MAN_LINKS tag is set to YES and Doxygen generates man output,
	1483	# then it will generate one additional man file for each entity
	1484	# documented in the real man page(s). These additional files
	1485	# only source the real man page, but without them the man command
	1486	# would be unable to find the correct page. The default is NO.
	1487
	1488	MAN_LINKS = NO
	1489
	1490	#---------------------------------------------------------------------------
	1491	# configuration options related to the XML output
	1492	#---------------------------------------------------------------------------
	1493
	1494	# If the GENERATE_XML tag is set to YES Doxygen will
	1495	# generate an XML file that captures the structure of
	1496	# the code including all documentation.
	1497
	1498	GENERATE_XML = NO
	1499
	1500	# The XML_OUTPUT tag is used to specify where the XML pages will be put.
	1501	# If a relative path is entered the value of OUTPUT_DIRECTORY will be
	1502	# put in front of it. If left blank `xml' will be used as the default path.
	1503
	1504	XML_OUTPUT = xml
	1505
	1506	# The XML_SCHEMA tag can be used to specify an XML schema,
	1507	# which can be used by a validating XML parser to check the
	1508	# syntax of the XML files.
	1509
	1510	XML_SCHEMA =
	1511
	1512	# The XML_DTD tag can be used to specify an XML DTD,
	1513	# which can be used by a validating XML parser to check the
	1514	# syntax of the XML files.
	1515
	1516	XML_DTD =
	1517
	1518	# If the XML_PROGRAMLISTING tag is set to YES Doxygen will
	1519	# dump the program listings (including syntax highlighting
	1520	# and cross-referencing information) to the XML output. Note that
	1521	# enabling this will significantly increase the size of the XML output.
	1522
	1523	XML_PROGRAMLISTING = YES
	1524
	1525	#---------------------------------------------------------------------------
	1526	# configuration options for the AutoGen Definitions output
	1527	#---------------------------------------------------------------------------
	1528
	1529	# If the GENERATE_AUTOGEN_DEF tag is set to YES Doxygen will
	1530	# generate an AutoGen Definitions (see autogen.sf.net) file
	1531	# that captures the structure of the code including all
	1532	# documentation. Note that this feature is still experimental
	1533	# and incomplete at the moment.
	1534
	1535	GENERATE_AUTOGEN_DEF = NO
	1536
	1537	#---------------------------------------------------------------------------
	1538	# configuration options related to the Perl module output
	1539	#---------------------------------------------------------------------------
	1540
	1541	# If the GENERATE_PERLMOD tag is set to YES Doxygen will
	1542	# generate a Perl module file that captures the structure of
	1543	# the code including all documentation. Note that this
	1544	# feature is still experimental and incomplete at the
	1545	# moment.
	1546
	1547	GENERATE_PERLMOD = NO
	1548
	1549	# If the PERLMOD_LATEX tag is set to YES Doxygen will generate
	1550	# the necessary Makefile rules, Perl scripts and LaTeX code to be able
	1551	# to generate PDF and DVI output from the Perl module output.
	1552
	1553	PERLMOD_LATEX = NO
	1554
	1555	# If the PERLMOD_PRETTY tag is set to YES the Perl module output will be
	1556	# nicely formatted so it can be parsed by a human reader. This is useful
	1557	# if you want to understand what is going on. On the other hand, if this
	1558	# tag is set to NO the size of the Perl module output will be much smaller
	1559	# and Perl will parse it just the same.
	1560
	1561	PERLMOD_PRETTY = YES
	1562
	1563	# The names of the make variables in the generated doxyrules.make file
	1564	# are prefixed with the string contained in PERLMOD_MAKEVAR_PREFIX.
	1565	# This is useful so different doxyrules.make files included by the same
	1566	# Makefile don't overwrite each other's variables.
	1567
	1568	PERLMOD_MAKEVAR_PREFIX =
	1569
	1570	#---------------------------------------------------------------------------
	1571	# Configuration options related to the preprocessor
	1572	#---------------------------------------------------------------------------
	1573
	1574	# If the ENABLE_PREPROCESSING tag is set to YES (the default) Doxygen will
	1575	# evaluate all C-preprocessor directives found in the sources and include
	1576	# files.
	1577
	1578	ENABLE_PREPROCESSING = YES
	1579
	1580	# If the MACRO_EXPANSION tag is set to YES Doxygen will expand all macro
	1581	# names in the source code. If set to NO (the default) only conditional
	1582	# compilation will be performed. Macro expansion can be done in a controlled
	1583	# way by setting EXPAND_ONLY_PREDEF to YES.
	1584
	1585	MACRO_EXPANSION = YES
	1586
	1587	# If the EXPAND_ONLY_PREDEF and MACRO_EXPANSION tags are both set to YES
	1588	# then the macro expansion is limited to the macros specified with the
	1589	# PREDEFINED and EXPAND_AS_DEFINED tags.
	1590
	1591	EXPAND_ONLY_PREDEF = YES
	1592
	1593	# If the SEARCH_INCLUDES tag is set to YES (the default) the includes files
	1594	# pointed to by INCLUDE_PATH will be searched when a #include is found.
	1595
	1596	SEARCH_INCLUDES = YES
	1597
	1598	# The INCLUDE_PATH tag can be used to specify one or more directories that
	1599	# contain include files that are not input files but should be processed by
	1600	# the preprocessor.
	1601
	1602	INCLUDE_PATH =
	1603
	1604	# You can use the INCLUDE_FILE_PATTERNS tag to specify one or more wildcard
	1605	# patterns (like .h and .hpp) to filter out the header-files in the
	1606	# directories. If left blank, the patterns specified with FILE_PATTERNS will
	1607	# be used.
	1608
	1609	INCLUDE_FILE_PATTERNS =
	1610
	1611	# The PREDEFINED tag can be used to specify one or more macro names that
	1612	# are defined before the preprocessor is started (similar to the -D option of
	1613	# gcc). The argument of the tag is a list of macros of the form: name
	1614	# or name=definition (no spaces). If the definition and the = are
	1615	# omitted =1 is assumed. To prevent a macro definition from being
	1616	# undefined via #undef or recursively expanded use the := operator
	1617	# instead of the = operator.
	1618
	1619	PREDEFINED = ASSIMP_DOXYGEN_BUILD=1 \
	1620	__cplusplus
	1621
	1622	# If the MACRO_EXPANSION and EXPAND_ONLY_PREDEF tags are set to YES then
	1623	# this tag can be used to specify a list of macro names that should be expanded.
	1624	# The macro definition that is found in the sources will be used.
	1625	# Use the PREDEFINED tag if you want to use a different macro definition that
	1626	# overrules the definition found in the source code.
	1627
	1628	EXPAND_AS_DEFINED = C_STRUCT \
	1629	C_ENUM
	1630
	1631	# If the SKIP_FUNCTION_MACROS tag is set to YES (the default) then
	1632	# doxygen's preprocessor will remove all references to function-like macros
	1633	# that are alone on a line, have an all uppercase name, and do not end with a
	1634	# semicolon, because these will confuse the parser if not removed.
	1635
	1636	SKIP_FUNCTION_MACROS = YES
	1637
	1638	#---------------------------------------------------------------------------
	1639	# Configuration::additions related to external references
	1640	#---------------------------------------------------------------------------
	1641
	1642	# The TAGFILES option can be used to specify one or more tagfiles. For each
	1643	# tag file the location of the external documentation should be added. The
	1644	# format of a tag file without this location is as follows:
	1645	# TAGFILES = file1 file2 ...
	1646	# Adding location for the tag files is done as follows:
	1647	# TAGFILES = file1=loc1 "file2 = loc2" ...
	1648	# where "loc1" and "loc2" can be relative or absolute paths
	1649	# or URLs. Note that each tag file must have a unique name (where the name does
	1650	# NOT include the path). If a tag file is not located in the directory in which
	1651	# doxygen is run, you must also specify the path to the tagfile here.
	1652
	1653	TAGFILES =
	1654
	1655	# When a file name is specified after GENERATE_TAGFILE, doxygen will create
	1656	# a tag file that is based on the input files it reads.
	1657
	1658	GENERATE_TAGFILE =
	1659
	1660	# If the ALLEXTERNALS tag is set to YES all external classes will be listed
	1661	# in the class index. If set to NO only the inherited external classes
	1662	# will be listed.
	1663
	1664	ALLEXTERNALS = NO
	1665
	1666	# If the EXTERNAL_GROUPS tag is set to YES all external groups will be listed
	1667	# in the modules index. If set to NO, only the current project's groups will
	1668	# be listed.
	1669
	1670	EXTERNAL_GROUPS = YES
	1671
	1672	# The PERL_PATH should be the absolute path and name of the perl script
	1673	# interpreter (i.e. the result of `which perl').
	1674
	1675	PERL_PATH = /usr/bin/perl
	1676
	1677	#---------------------------------------------------------------------------
	1678	# Configuration options related to the dot tool
	1679	#---------------------------------------------------------------------------
	1680
	1681	# If the CLASS_DIAGRAMS tag is set to YES (the default) Doxygen will
	1682	# generate a inheritance diagram (in HTML, RTF and LaTeX) for classes with base
	1683	# or super classes. Setting the tag to NO turns the diagrams off. Note that
	1684	# this option also works with HAVE_DOT disabled, but it is recommended to
	1685	# install and use dot, since it yields more powerful graphs.
	1686
	1687	CLASS_DIAGRAMS = NO
	1688
	1689	# You can define message sequence charts within doxygen comments using the \msc
	1690	# command. Doxygen will then run the mscgen tool (see
	1691	# http://www.mcternan.me.uk/mscgen/) to produce the chart and insert it in the
	1692	# documentation. The MSCGEN_PATH tag allows you to specify the directory where
	1693	# the mscgen tool resides. If left empty the tool is assumed to be found in the
	1694	# default search path.
	1695
	1696	MSCGEN_PATH =
	1697
	1698	# If set to YES, the inheritance and collaboration graphs will hide
	1699	# inheritance and usage relations if the target is undocumented
	1700	# or is not a class.
	1701
	1702	HIDE_UNDOC_RELATIONS = YES
	1703
	1704	# If you set the HAVE_DOT tag to YES then doxygen will assume the dot tool is
	1705	# available from the path. This tool is part of Graphviz, a graph visualization
	1706	# toolkit from AT&T and Lucent Bell Labs. The other options in this section
	1707	# have no effect if this option is set to NO (the default)
	1708
	1709	HAVE_DOT = NO
	1710
	1711	# The DOT_NUM_THREADS specifies the number of dot invocations doxygen is
	1712	# allowed to run in parallel. When set to 0 (the default) doxygen will
	1713	# base this on the number of processors available in the system. You can set it
	1714	# explicitly to a value larger than 0 to get control over the balance
	1715	# between CPU load and processing speed.
	1716
	1717	DOT_NUM_THREADS = 0
	1718
	1719	# By default doxygen will use the Helvetica font for all dot files that
	1720	# doxygen generates. When you want a differently looking font you can specify
	1721	# the font name using DOT_FONTNAME. You need to make sure dot is able to find
	1722	# the font, which can be done by putting it in a standard location or by setting
	1723	# the DOTFONTPATH environment variable or by setting DOT_FONTPATH to the
	1724	# directory containing the font.
	1725
	1726	DOT_FONTNAME = FreeSans
	1727
	1728	# The DOT_FONTSIZE tag can be used to set the size of the font of dot graphs.
	1729	# The default size is 10pt.
	1730
	1731	DOT_FONTSIZE = 10
	1732
	1733	# By default doxygen will tell dot to use the Helvetica font.
	1734	# If you specify a different font using DOT_FONTNAME you can use DOT_FONTPATH to
	1735	# set the path where dot can find it.
	1736
	1737	DOT_FONTPATH =
	1738
	1739	# If the CLASS_GRAPH and HAVE_DOT tags are set to YES then doxygen
	1740	# will generate a graph for each documented class showing the direct and
	1741	# indirect inheritance relations. Setting this tag to YES will force the
	1742	# CLASS_DIAGRAMS tag to NO.
	1743
	1744	CLASS_GRAPH = YES
	1745
	1746	# If the COLLABORATION_GRAPH and HAVE_DOT tags are set to YES then doxygen
	1747	# will generate a graph for each documented class showing the direct and
	1748	# indirect implementation dependencies (inheritance, containment, and
	1749	# class references variables) of the class with other documented classes.
	1750
	1751	COLLABORATION_GRAPH = YES
	1752
	1753	# If the GROUP_GRAPHS and HAVE_DOT tags are set to YES then doxygen
	1754	# will generate a graph for groups, showing the direct groups dependencies
	1755
	1756	GROUP_GRAPHS = YES
	1757
	1758	# If the UML_LOOK tag is set to YES doxygen will generate inheritance and
	1759	# collaboration diagrams in a style similar to the OMG's Unified Modeling
	1760	# Language.
	1761
	1762	UML_LOOK = NO
	1763
	1764	# If the UML_LOOK tag is enabled, the fields and methods are shown inside
	1765	# the class node. If there are many fields or methods and many nodes the
	1766	# graph may become too big to be useful. The UML_LIMIT_NUM_FIELDS
	1767	# threshold limits the number of items for each type to make the size more
	1768	# managable. Set this to 0 for no limit. Note that the threshold may be
	1769	# exceeded by 50% before the limit is enforced.
	1770
	1771	UML_LIMIT_NUM_FIELDS = 10
	1772
	1773	# If set to YES, the inheritance and collaboration graphs will show the
	1774	# relations between templates and their instances.
	1775
	1776	TEMPLATE_RELATIONS = NO
	1777
	1778	# If the ENABLE_PREPROCESSING, SEARCH_INCLUDES, INCLUDE_GRAPH, and HAVE_DOT
	1779	# tags are set to YES then doxygen will generate a graph for each documented
	1780	# file showing the direct and indirect include dependencies of the file with
	1781	# other documented files.
	1782
	1783	INCLUDE_GRAPH = YES
	1784
	1785	# If the ENABLE_PREPROCESSING, SEARCH_INCLUDES, INCLUDED_BY_GRAPH, and
	1786	# HAVE_DOT tags are set to YES then doxygen will generate a graph for each
	1787	# documented header file showing the documented files that directly or
	1788	# indirectly include this file.
	1789
	1790	INCLUDED_BY_GRAPH = YES
	1791
	1792	# If the CALL_GRAPH and HAVE_DOT options are set to YES then
	1793	# doxygen will generate a call dependency graph for every global function
	1794	# or class method. Note that enabling this option will significantly increase
	1795	# the time of a run. So in most cases it will be better to enable call graphs
	1796	# for selected functions only using the \callgraph command.
	1797
	1798	CALL_GRAPH = NO
	1799
	1800	# If the CALLER_GRAPH and HAVE_DOT tags are set to YES then
	1801	# doxygen will generate a caller dependency graph for every global function
	1802	# or class method. Note that enabling this option will significantly increase
	1803	# the time of a run. So in most cases it will be better to enable caller
	1804	# graphs for selected functions only using the \callergraph command.
	1805
	1806	CALLER_GRAPH = NO
	1807
	1808	# If the GRAPHICAL_HIERARCHY and HAVE_DOT tags are set to YES then doxygen
	1809	# will generate a graphical hierarchy of all classes instead of a textual one.
	1810
	1811	GRAPHICAL_HIERARCHY = YES
	1812
	1813	# If the DIRECTORY_GRAPH and HAVE_DOT tags are set to YES
	1814	# then doxygen will show the dependencies a directory has on other directories
	1815	# in a graphical way. The dependency relations are determined by the #include
	1816	# relations between the files in the directories.
	1817
	1818	DIRECTORY_GRAPH = YES
	1819
	1820	# The DOT_IMAGE_FORMAT tag can be used to set the image format of the images
	1821	# generated by dot. Possible values are svg, png, jpg, or gif.
	1822	# If left blank png will be used. If you choose svg you need to set
	1823	# HTML_FILE_EXTENSION to xhtml in order to make the SVG files
	1824	# visible in IE 9+ (other browsers do not have this requirement).
	1825
	1826	DOT_IMAGE_FORMAT = png
	1827
	1828	# If DOT_IMAGE_FORMAT is set to svg, then this option can be set to YES to
	1829	# enable generation of interactive SVG images that allow zooming and panning.
	1830	# Note that this requires a modern browser other than Internet Explorer.
	1831	# Tested and working are Firefox, Chrome, Safari, and Opera. For IE 9+ you
	1832	# need to set HTML_FILE_EXTENSION to xhtml in order to make the SVG files
	1833	# visible. Older versions of IE do not have SVG support.
	1834
	1835	INTERACTIVE_SVG = NO
	1836
	1837	# The tag DOT_PATH can be used to specify the path where the dot tool can be
	1838	# found. If left blank, it is assumed the dot tool can be found in the path.
	1839
	1840	DOT_PATH =
	1841
	1842	# The DOTFILE_DIRS tag can be used to specify one or more directories that
	1843	# contain dot files that are included in the documentation (see the
	1844	# \dotfile command).
	1845
	1846	DOTFILE_DIRS =
	1847
	1848	# The MSCFILE_DIRS tag can be used to specify one or more directories that
	1849	# contain msc files that are included in the documentation (see the
	1850	# \mscfile command).
	1851
	1852	MSCFILE_DIRS =
	1853
	1854	# The DOT_GRAPH_MAX_NODES tag can be used to set the maximum number of
	1855	# nodes that will be shown in the graph. If the number of nodes in a graph
	1856	# becomes larger than this value, doxygen will truncate the graph, which is
	1857	# visualized by representing a node as a red box. Note that doxygen if the
	1858	# number of direct children of the root node in a graph is already larger than
	1859	# DOT_GRAPH_MAX_NODES then the graph will not be shown at all. Also note
	1860	# that the size of a graph can be further restricted by MAX_DOT_GRAPH_DEPTH.
	1861
	1862	DOT_GRAPH_MAX_NODES = 50
	1863
	1864	# The MAX_DOT_GRAPH_DEPTH tag can be used to set the maximum depth of the
	1865	# graphs generated by dot. A depth value of 3 means that only nodes reachable
	1866	# from the root by following a path via at most 3 edges will be shown. Nodes
	1867	# that lay further from the root node will be omitted. Note that setting this
	1868	# option to 1 or 2 may greatly reduce the computation time needed for large
	1869	# code bases. Also note that the size of a graph can be further restricted by
	1870	# DOT_GRAPH_MAX_NODES. Using a depth of 0 means no depth restriction.
	1871
	1872	MAX_DOT_GRAPH_DEPTH = 1000
	1873
	1874	# Set the DOT_TRANSPARENT tag to YES to generate images with a transparent
	1875	# background. This is disabled by default, because dot on Windows does not
	1876	# seem to support this out of the box. Warning: Depending on the platform used,
	1877	# enabling this option may lead to badly anti-aliased labels on the edges of
	1878	# a graph (i.e. they become hard to read).
	1879
	1880	DOT_TRANSPARENT = NO
	1881
	1882	# Set the DOT_MULTI_TARGETS tag to YES allow dot to generate multiple output
	1883	# files in one run (i.e. multiple -o and -T options on the command line). This
	1884	# makes dot run faster, but since only newer versions of dot (>1.8.10)
	1885	# support this, this feature is disabled by default.
	1886
	1887	DOT_MULTI_TARGETS = NO
	1888
	1889	# If the GENERATE_LEGEND tag is set to YES (the default) Doxygen will
	1890	# generate a legend page explaining the meaning of the various boxes and
	1891	# arrows in the dot generated graphs.
	1892
	1893	GENERATE_LEGEND = YES
	1894
	1895	# If the DOT_CLEANUP tag is set to YES (the default) Doxygen will
	1896	# remove the intermediate dot files that are used to generate
	1897	# the various graphs.
	1898
	1899	DOT_CLEANUP = YES

+2368

-296

doc/Doxyfile_Cmd less more

0		# Doxyfile 1.5.8
1
2		#---------------------------------------------------------------------------
3		# Project related configuration options
4		#---------------------------------------------------------------------------
5		DOXYFILE_ENCODING = UTF-8
6		PROJECT_NAME = Assimp Command Line Tools
7		PROJECT_NUMBER = "v2.0 (November 2010)"
8		OUTPUT_DIRECTORY =
9		CREATE_SUBDIRS = NO
10		OUTPUT_LANGUAGE = English
11		BRIEF_MEMBER_DESC = YES
12		REPEAT_BRIEF = YES
13		ABBREVIATE_BRIEF = "The $name class " \
14		"The $name widget " \
15		"The $name file " \
16		is \
17		provides \
18		specifies \
19		contains \
20		represents \
21		a \
22		an \
23		the
24		ALWAYS_DETAILED_SEC = NO
25		INLINE_INHERITED_MEMB = NO
26		FULL_PATH_NAMES = NO
27		STRIP_FROM_PATH =
28		STRIP_FROM_INC_PATH =
29		SHORT_NAMES = NO
30		JAVADOC_AUTOBRIEF = YES
31		QT_AUTOBRIEF = NO
32		MULTILINE_CPP_IS_BRIEF = NO
33		INHERIT_DOCS = YES
34		SEPARATE_MEMBER_PAGES = NO
35		TAB_SIZE = 8
36		ALIASES =
37		OPTIMIZE_OUTPUT_FOR_C = NO
38		OPTIMIZE_OUTPUT_JAVA = NO
39		OPTIMIZE_FOR_FORTRAN = NO
40		OPTIMIZE_OUTPUT_VHDL = NO
41		EXTENSION_MAPPING =
42		BUILTIN_STL_SUPPORT = YES
43		CPP_CLI_SUPPORT = NO
44		SIP_SUPPORT = NO
45		IDL_PROPERTY_SUPPORT = YES
46		DISTRIBUTE_GROUP_DOC = NO
47		SUBGROUPING = YES
48		TYPEDEF_HIDES_STRUCT = YES
49		SYMBOL_CACHE_SIZE = 0
50		#---------------------------------------------------------------------------
51		# Build related configuration options
52		#---------------------------------------------------------------------------
53		EXTRACT_ALL = YES
54		EXTRACT_PRIVATE = NO
55		EXTRACT_STATIC = YES
56		EXTRACT_LOCAL_CLASSES = YES
57		EXTRACT_LOCAL_METHODS = NO
58		EXTRACT_ANON_NSPACES = NO
59		HIDE_UNDOC_MEMBERS = YES
60		HIDE_UNDOC_CLASSES = YES
61		HIDE_FRIEND_COMPOUNDS = NO
62		HIDE_IN_BODY_DOCS = NO
63		INTERNAL_DOCS = NO
64		CASE_SENSE_NAMES = NO
65		HIDE_SCOPE_NAMES = NO
66		SHOW_INCLUDE_FILES = NO
67		INLINE_INFO = YES
68		SORT_MEMBER_DOCS = YES
69		SORT_BRIEF_DOCS = YES
70		SORT_GROUP_NAMES = NO
71		SORT_BY_SCOPE_NAME = YES
72		GENERATE_TODOLIST = YES
73		GENERATE_TESTLIST = YES
74		GENERATE_BUGLIST = YES
75		GENERATE_DEPRECATEDLIST= YES
76		ENABLED_SECTIONS =
77		MAX_INITIALIZER_LINES = 30
78		SHOW_USED_FILES = YES
79		SHOW_DIRECTORIES = NO
80		SHOW_FILES = YES
81		SHOW_NAMESPACES = YES
82		FILE_VERSION_FILTER =
83		LAYOUT_FILE =
84		#---------------------------------------------------------------------------
85		# configuration options related to warning and progress messages
86		#---------------------------------------------------------------------------
87		QUIET = NO
88		WARNINGS = YES
89		WARN_IF_UNDOCUMENTED = YES
90		WARN_IF_DOC_ERROR = YES
91		WARN_NO_PARAMDOC = NO
92		WARN_FORMAT = "$file:$line: $text"
93		WARN_LOGFILE =
94		#---------------------------------------------------------------------------
95		# configuration options related to the input files
96		#---------------------------------------------------------------------------
97		INPUT = ../doc/dox_cmd.h
98		INPUT_ENCODING = UTF-8
99		FILE_PATTERNS = *.c \
100		*.cc \
101		*.cxx \
102		*.cpp \
103		*.c++ \
104		*.d \
105		*.java \
106		*.ii \
107		*.ixx \
108		*.ipp \
109		*.i++ \
110		*.inl \
111		*.h \
112		*.hh \
113		*.hxx \
114		*.hpp \
115		*.h++ \
116		*.idl \
117		*.odl \
118		*.cs \
119		*.php \
120		*.php3 \
121		*.inc \
122		*.m \
123		*.mm \
124		*.dox \
125		*.py
126		RECURSIVE = YES
127		EXCLUDE =
128		EXCLUDE_SYMLINKS = NO
129		EXCLUDE_PATTERNS = /.svn/ \
130		*/.svn
131		EXCLUDE_SYMBOLS =
132		EXAMPLE_PATH =
133		EXAMPLE_PATTERNS = *
134		EXAMPLE_RECURSIVE = NO
135		IMAGE_PATH =
136		INPUT_FILTER =
137		FILTER_PATTERNS =
138		FILTER_SOURCE_FILES = NO
139		#---------------------------------------------------------------------------
140		# configuration options related to source browsing
141		#---------------------------------------------------------------------------
142		SOURCE_BROWSER = NO
143		INLINE_SOURCES = NO
144		STRIP_CODE_COMMENTS = YES
145		REFERENCED_BY_RELATION = NO
146		REFERENCES_RELATION = NO
147		REFERENCES_LINK_SOURCE = YES
148		USE_HTAGS = NO
149		VERBATIM_HEADERS = NO
150		#---------------------------------------------------------------------------
151		# configuration options related to the alphabetical class index
152		#---------------------------------------------------------------------------
153		ALPHABETICAL_INDEX = NO
154		COLS_IN_ALPHA_INDEX = 5
155		IGNORE_PREFIX =
156		#---------------------------------------------------------------------------
157		# configuration options related to the HTML output
158		#---------------------------------------------------------------------------
159		GENERATE_HTML = YES
160		HTML_OUTPUT = AssimpCmdDoc_Html
161		HTML_FILE_EXTENSION = .html
162		HTML_HEADER =
163		HTML_FOOTER =
164		HTML_STYLESHEET = style.css
165		HTML_ALIGN_MEMBERS = YES
166		HTML_DYNAMIC_SECTIONS = NO
167		GENERATE_DOCSET = NO
168		DOCSET_FEEDNAME = "Doxygen generated docs"
169		DOCSET_BUNDLE_ID = org.doxygen.Project
170		GENERATE_HTMLHELP = YES
171		CHM_FILE = AssimpCmdDoc.chm
172		HHC_LOCATION = "C:/Program Files (x86)/HTML Help Workshop/hhc.exe"
173		GENERATE_CHI = NO
174		CHM_INDEX_ENCODING =
175		BINARY_TOC = NO
176		TOC_EXPAND = NO
177		GENERATE_QHP = NO
178		QCH_FILE =
179		QHP_NAMESPACE =
180		QHP_VIRTUAL_FOLDER = doc
181		QHP_CUST_FILTER_NAME =
182		QHP_CUST_FILTER_ATTRS =
183		QHP_SECT_FILTER_ATTRS =
184		QHG_LOCATION =
185		DISABLE_INDEX = NO
186		ENUM_VALUES_PER_LINE = 4
187		GENERATE_TREEVIEW = NO
188		TREEVIEW_WIDTH = 250
189		FORMULA_FONTSIZE = 10
190		#---------------------------------------------------------------------------
191		# configuration options related to the LaTeX output
192		#---------------------------------------------------------------------------
193		GENERATE_LATEX = NO
194		LATEX_OUTPUT = latex
195		LATEX_CMD_NAME = latex
196		MAKEINDEX_CMD_NAME = makeindex
197		COMPACT_LATEX = NO
198		PAPER_TYPE = a4wide
199		EXTRA_PACKAGES =
200		LATEX_HEADER =
201		PDF_HYPERLINKS = NO
202		USE_PDFLATEX = NO
203		LATEX_BATCHMODE = NO
204		LATEX_HIDE_INDICES = NO
205		#---------------------------------------------------------------------------
206		# configuration options related to the RTF output
207		#---------------------------------------------------------------------------
208		GENERATE_RTF = NO
209		RTF_OUTPUT = rtf
210		COMPACT_RTF = NO
211		RTF_HYPERLINKS = NO
212		RTF_STYLESHEET_FILE =
213		RTF_EXTENSIONS_FILE =
214		#---------------------------------------------------------------------------
215		# configuration options related to the man page output
216		#---------------------------------------------------------------------------
217		GENERATE_MAN = NO
218		MAN_OUTPUT = man
219		MAN_EXTENSION = .3
220		MAN_LINKS = NO
221		#---------------------------------------------------------------------------
222		# configuration options related to the XML output
223		#---------------------------------------------------------------------------
224		GENERATE_XML = NO
225		XML_OUTPUT = xml
226		XML_SCHEMA =
227		XML_DTD =
228		XML_PROGRAMLISTING = YES
229		#---------------------------------------------------------------------------
230		# configuration options for the AutoGen Definitions output
231		#---------------------------------------------------------------------------
232		GENERATE_AUTOGEN_DEF = NO
233		#---------------------------------------------------------------------------
234		# configuration options related to the Perl module output
235		#---------------------------------------------------------------------------
236		GENERATE_PERLMOD = NO
237		PERLMOD_LATEX = NO
238		PERLMOD_PRETTY = YES
239		PERLMOD_MAKEVAR_PREFIX =
240		#---------------------------------------------------------------------------
241		# Configuration options related to the preprocessor
242		#---------------------------------------------------------------------------
243		ENABLE_PREPROCESSING = YES
244		MACRO_EXPANSION = YES
245		EXPAND_ONLY_PREDEF = YES
246		SEARCH_INCLUDES = YES
247		INCLUDE_PATH =
248		INCLUDE_FILE_PATTERNS =
249		PREDEFINED = ASSIMP_DOXYGEN_BUILD=1 \
250		__cplusplus
251		EXPAND_AS_DEFINED = C_STRUCT \
252		C_ENUM
253		SKIP_FUNCTION_MACROS = YES
254		#---------------------------------------------------------------------------
255		# Configuration::additions related to external references
256		#---------------------------------------------------------------------------
257		TAGFILES =
258		GENERATE_TAGFILE =
259		ALLEXTERNALS = NO
260		EXTERNAL_GROUPS = YES
261		PERL_PATH = /usr/bin/perl
262		#---------------------------------------------------------------------------
263		# Configuration options related to the dot tool
264		#---------------------------------------------------------------------------
265		CLASS_DIAGRAMS = NO
266		MSCGEN_PATH =
267		HIDE_UNDOC_RELATIONS = YES
268		HAVE_DOT = NO
269		DOT_FONTNAME = FreeSans
270		DOT_FONTSIZE = 10
271		DOT_FONTPATH =
272		CLASS_GRAPH = YES
273		COLLABORATION_GRAPH = YES
274		GROUP_GRAPHS = YES
275		UML_LOOK = NO
276		TEMPLATE_RELATIONS = NO
277		INCLUDE_GRAPH = YES
278		INCLUDED_BY_GRAPH = YES
279		CALL_GRAPH = NO
280		CALLER_GRAPH = NO
281		GRAPHICAL_HIERARCHY = YES
282		DIRECTORY_GRAPH = YES
283		DOT_IMAGE_FORMAT = png
284		DOT_PATH =
285		DOTFILE_DIRS =
286		DOT_GRAPH_MAX_NODES = 50
287		MAX_DOT_GRAPH_DEPTH = 1000
288		DOT_TRANSPARENT = NO
289		DOT_MULTI_TARGETS = NO
290		GENERATE_LEGEND = YES
291		DOT_CLEANUP = YES
292		#---------------------------------------------------------------------------
293		# Options related to the search engine
294		#---------------------------------------------------------------------------
295		SEARCHENGINE = NO
	0	# Doxyfile 1.8.7
	1
	2	# This file describes the settings to be used by the documentation system
	3	# doxygen (www.doxygen.org) for a project.
	4	#
	5	# All text after a double hash (##) is considered a comment and is placed in
	6	# front of the TAG it is preceding.
	7	#
	8	# All text after a single hash (#) is considered a comment and will be ignored.
	9	# The format is:
	10	# TAG = value [value, ...]
	11	# For lists, items can also be appended using:
	12	# TAG += value [value, ...]
	13	# Values that contain spaces should be placed between quotes (\" \").
	14
	15	#---------------------------------------------------------------------------
	16	# Project related configuration options
	17	#---------------------------------------------------------------------------
	18
	19	# This tag specifies the encoding used for all characters in the config file
	20	# that follow. The default is UTF-8 which is also the encoding used for all text
	21	# before the first occurrence of this tag. Doxygen uses libiconv (or the iconv
	22	# built into libc) for the transcoding. See http://www.gnu.org/software/libiconv
	23	# for the list of possible encodings.
	24	# The default value is: UTF-8.
	25
	26	DOXYFILE_ENCODING = UTF-8
	27
	28	# The PROJECT_NAME tag is a single word (or a sequence of words surrounded by
	29	# double-quotes, unless you are using Doxywizard) that should identify the
	30	# project for which the documentation is generated. This name is used in the
	31	# title of most generated pages and in a few other places.
	32	# The default value is: My Project.
	33
	34	PROJECT_NAME = Tools
	35
	36	# The PROJECT_NUMBER tag can be used to enter a project or revision number. This
	37	# could be handy for archiving the generated documentation or if some version
	38	# control system is used.
	39
	40	PROJECT_NUMBER = "v3.1.1 (June 2014)"
	41
	42	# Using the PROJECT_BRIEF tag one can provide an optional one line description
	43	# for a project that appears at the top of each page and should give viewer a
	44	# quick idea about the purpose of the project. Keep the description short.
	45
	46	PROJECT_BRIEF =
	47
	48	# With the PROJECT_LOGO tag one can specify an logo or icon that is included in
	49	# the documentation. The maximum height of the logo should not exceed 55 pixels
	50	# and the maximum width should not exceed 200 pixels. Doxygen will copy the logo
	51	# to the output directory.
	52
	53	PROJECT_LOGO =
	54
	55	# The OUTPUT_DIRECTORY tag is used to specify the (relative or absolute) path
	56	# into which the generated documentation will be written. If a relative path is
	57	# entered, it will be relative to the location where doxygen was started. If
	58	# left blank the current directory will be used.
	59
	60	OUTPUT_DIRECTORY =
	61
	62	# If the CREATE_SUBDIRS tag is set to YES, then doxygen will create 4096 sub-
	63	# directories (in 2 levels) under the output directory of each output format and
	64	# will distribute the generated files over these directories. Enabling this
	65	# option can be useful when feeding doxygen a huge amount of source files, where
	66	# putting all generated files in the same directory would otherwise causes
	67	# performance problems for the file system.
	68	# The default value is: NO.
	69
	70	CREATE_SUBDIRS = NO
	71
	72	# If the ALLOW_UNICODE_NAMES tag is set to YES, doxygen will allow non-ASCII
	73	# characters to appear in the names of generated files. If set to NO, non-ASCII
	74	# characters will be escaped, for example _xE3_x81_x84 will be used for Unicode
	75	# U+3044.
	76	# The default value is: NO.
	77
	78	ALLOW_UNICODE_NAMES = NO
	79
	80	# The OUTPUT_LANGUAGE tag is used to specify the language in which all
	81	# documentation generated by doxygen is written. Doxygen will use this
	82	# information to generate all constant output in the proper language.
	83	# Possible values are: Afrikaans, Arabic, Armenian, Brazilian, Catalan, Chinese,
	84	# Chinese-Traditional, Croatian, Czech, Danish, Dutch, English (United States),
	85	# Esperanto, Farsi (Persian), Finnish, French, German, Greek, Hungarian,
	86	# Indonesian, Italian, Japanese, Japanese-en (Japanese with English messages),
	87	# Korean, Korean-en (Korean with English messages), Latvian, Lithuanian,
	88	# Macedonian, Norwegian, Persian (Farsi), Polish, Portuguese, Romanian, Russian,
	89	# Serbian, Serbian-Cyrillic, Slovak, Slovene, Spanish, Swedish, Turkish,
	90	# Ukrainian and Vietnamese.
	91	# The default value is: English.
	92
	93	OUTPUT_LANGUAGE = English
	94
	95	# If the BRIEF_MEMBER_DESC tag is set to YES doxygen will include brief member
	96	# descriptions after the members that are listed in the file and class
	97	# documentation (similar to Javadoc). Set to NO to disable this.
	98	# The default value is: YES.
	99
	100	BRIEF_MEMBER_DESC = YES
	101
	102	# If the REPEAT_BRIEF tag is set to YES doxygen will prepend the brief
	103	# description of a member or function before the detailed description
	104	#
	105	# Note: If both HIDE_UNDOC_MEMBERS and BRIEF_MEMBER_DESC are set to NO, the
	106	# brief descriptions will be completely suppressed.
	107	# The default value is: YES.
	108
	109	REPEAT_BRIEF = YES
	110
	111	# This tag implements a quasi-intelligent brief description abbreviator that is
	112	# used to form the text in various listings. Each string in this list, if found
	113	# as the leading text of the brief description, will be stripped from the text
	114	# and the result, after processing the whole list, is used as the annotated
	115	# text. Otherwise, the brief description is used as-is. If left blank, the
	116	# following values are used ($name is automatically replaced with the name of
	117	# the entity):The $name class, The $name widget, The $name file, is, provides,
	118	# specifies, contains, represents, a, an and the.
	119
	120	ABBREVIATE_BRIEF = "The $name class " \
	121	"The $name widget " \
	122	"The $name file " \
	123	is \
	124	provides \
	125	specifies \
	126	contains \
	127	represents \
	128	a \
	129	an \
	130	the
	131
	132	# If the ALWAYS_DETAILED_SEC and REPEAT_BRIEF tags are both set to YES then
	133	# doxygen will generate a detailed section even if there is only a brief
	134	# description.
	135	# The default value is: NO.
	136
	137	ALWAYS_DETAILED_SEC = NO
	138
	139	# If the INLINE_INHERITED_MEMB tag is set to YES, doxygen will show all
	140	# inherited members of a class in the documentation of that class as if those
	141	# members were ordinary class members. Constructors, destructors and assignment
	142	# operators of the base classes will not be shown.
	143	# The default value is: NO.
	144
	145	INLINE_INHERITED_MEMB = NO
	146
	147	# If the FULL_PATH_NAMES tag is set to YES doxygen will prepend the full path
	148	# before files name in the file list and in the header files. If set to NO the
	149	# shortest path that makes the file name unique will be used
	150	# The default value is: YES.
	151
	152	FULL_PATH_NAMES = NO
	153
	154	# The STRIP_FROM_PATH tag can be used to strip a user-defined part of the path.
	155	# Stripping is only done if one of the specified strings matches the left-hand
	156	# part of the path. The tag can be used to show relative paths in the file list.
	157	# If left blank the directory from which doxygen is run is used as the path to
	158	# strip.
	159	#
	160	# Note that you can specify absolute paths here, but also relative paths, which
	161	# will be relative from the directory where doxygen is started.
	162	# This tag requires that the tag FULL_PATH_NAMES is set to YES.
	163
	164	STRIP_FROM_PATH =
	165
	166	# The STRIP_FROM_INC_PATH tag can be used to strip a user-defined part of the
	167	# path mentioned in the documentation of a class, which tells the reader which
	168	# header file to include in order to use a class. If left blank only the name of
	169	# the header file containing the class definition is used. Otherwise one should
	170	# specify the list of include paths that are normally passed to the compiler
	171	# using the -I flag.
	172
	173	STRIP_FROM_INC_PATH =
	174
	175	# If the SHORT_NAMES tag is set to YES, doxygen will generate much shorter (but
	176	# less readable) file names. This can be useful is your file systems doesn't
	177	# support long names like on DOS, Mac, or CD-ROM.
	178	# The default value is: NO.
	179
	180	SHORT_NAMES = NO
	181
	182	# If the JAVADOC_AUTOBRIEF tag is set to YES then doxygen will interpret the
	183	# first line (until the first dot) of a Javadoc-style comment as the brief
	184	# description. If set to NO, the Javadoc-style will behave just like regular Qt-
	185	# style comments (thus requiring an explicit @brief command for a brief
	186	# description.)
	187	# The default value is: NO.
	188
	189	JAVADOC_AUTOBRIEF = YES
	190
	191	# If the QT_AUTOBRIEF tag is set to YES then doxygen will interpret the first
	192	# line (until the first dot) of a Qt-style comment as the brief description. If
	193	# set to NO, the Qt-style will behave just like regular Qt-style comments (thus
	194	# requiring an explicit \brief command for a brief description.)
	195	# The default value is: NO.
	196
	197	QT_AUTOBRIEF = NO
	198
	199	# The MULTILINE_CPP_IS_BRIEF tag can be set to YES to make doxygen treat a
	200	# multi-line C++ special comment block (i.e. a block of //! or /// comments) as
	201	# a brief description. This used to be the default behavior. The new default is
	202	# to treat a multi-line C++ comment block as a detailed description. Set this
	203	# tag to YES if you prefer the old behavior instead.
	204	#
	205	# Note that setting this tag to YES also means that rational rose comments are
	206	# not recognized any more.
	207	# The default value is: NO.
	208
	209	MULTILINE_CPP_IS_BRIEF = NO
	210
	211	# If the INHERIT_DOCS tag is set to YES then an undocumented member inherits the
	212	# documentation from any documented member that it re-implements.
	213	# The default value is: YES.
	214
	215	INHERIT_DOCS = YES
	216
	217	# If the SEPARATE_MEMBER_PAGES tag is set to YES, then doxygen will produce a
	218	# new page for each member. If set to NO, the documentation of a member will be
	219	# part of the file/class/namespace that contains it.
	220	# The default value is: NO.
	221
	222	SEPARATE_MEMBER_PAGES = NO
	223
	224	# The TAB_SIZE tag can be used to set the number of spaces in a tab. Doxygen
	225	# uses this value to replace tabs by spaces in code fragments.
	226	# Minimum value: 1, maximum value: 16, default value: 4.
	227
	228	TAB_SIZE = 8
	229
	230	# This tag can be used to specify a number of aliases that act as commands in
	231	# the documentation. An alias has the form:
	232	# name=value
	233	# For example adding
	234	# "sideeffect=@par Side Effects:\n"
	235	# will allow you to put the command \sideeffect (or @sideeffect) in the
	236	# documentation, which will result in a user-defined paragraph with heading
	237	# "Side Effects:". You can put \n's in the value part of an alias to insert
	238	# newlines.
	239
	240	ALIASES =
	241
	242	# This tag can be used to specify a number of word-keyword mappings (TCL only).
	243	# A mapping has the form "name=value". For example adding "class=itcl::class"
	244	# will allow you to use the command class in the itcl::class meaning.
	245
	246	TCL_SUBST =
	247
	248	# Set the OPTIMIZE_OUTPUT_FOR_C tag to YES if your project consists of C sources
	249	# only. Doxygen will then generate output that is more tailored for C. For
	250	# instance, some of the names that are used will be different. The list of all
	251	# members will be omitted, etc.
	252	# The default value is: NO.
	253
	254	OPTIMIZE_OUTPUT_FOR_C = NO
	255
	256	# Set the OPTIMIZE_OUTPUT_JAVA tag to YES if your project consists of Java or
	257	# Python sources only. Doxygen will then generate output that is more tailored
	258	# for that language. For instance, namespaces will be presented as packages,
	259	# qualified scopes will look different, etc.
	260	# The default value is: NO.
	261
	262	OPTIMIZE_OUTPUT_JAVA = NO
	263
	264	# Set the OPTIMIZE_FOR_FORTRAN tag to YES if your project consists of Fortran
	265	# sources. Doxygen will then generate output that is tailored for Fortran.
	266	# The default value is: NO.
	267
	268	OPTIMIZE_FOR_FORTRAN = NO
	269
	270	# Set the OPTIMIZE_OUTPUT_VHDL tag to YES if your project consists of VHDL
	271	# sources. Doxygen will then generate output that is tailored for VHDL.
	272	# The default value is: NO.
	273
	274	OPTIMIZE_OUTPUT_VHDL = NO
	275
	276	# Doxygen selects the parser to use depending on the extension of the files it
	277	# parses. With this tag you can assign which parser to use for a given
	278	# extension. Doxygen has a built-in mapping, but you can override or extend it
	279	# using this tag. The format is ext=language, where ext is a file extension, and
	280	# language is one of the parsers supported by doxygen: IDL, Java, Javascript,
	281	# C#, C, C++, D, PHP, Objective-C, Python, Fortran (fixed format Fortran:
	282	# FortranFixed, free formatted Fortran: FortranFree, unknown formatted Fortran:
	283	# Fortran. In the later case the parser tries to guess whether the code is fixed
	284	# or free formatted code, this is the default for Fortran type files), VHDL. For
	285	# instance to make doxygen treat .inc files as Fortran files (default is PHP),
	286	# and .f files as C (default is Fortran), use: inc=Fortran f=C.
	287	#
	288	# Note For files without extension you can use no_extension as a placeholder.
	289	#
	290	# Note that for custom extensions you also need to set FILE_PATTERNS otherwise
	291	# the files are not read by doxygen.
	292
	293	EXTENSION_MAPPING =
	294
	295	# If the MARKDOWN_SUPPORT tag is enabled then doxygen pre-processes all comments
	296	# according to the Markdown format, which allows for more readable
	297	# documentation. See http://daringfireball.net/projects/markdown/ for details.
	298	# The output of markdown processing is further processed by doxygen, so you can
	299	# mix doxygen, HTML, and XML commands with Markdown formatting. Disable only in
	300	# case of backward compatibilities issues.
	301	# The default value is: YES.
	302
	303	MARKDOWN_SUPPORT = YES
	304
	305	# When enabled doxygen tries to link words that correspond to documented
	306	# classes, or namespaces to their corresponding documentation. Such a link can
	307	# be prevented in individual cases by by putting a % sign in front of the word
	308	# or globally by setting AUTOLINK_SUPPORT to NO.
	309	# The default value is: YES.
	310
	311	AUTOLINK_SUPPORT = YES
	312
	313	# If you use STL classes (i.e. std::string, std::vector, etc.) but do not want
	314	# to include (a tag file for) the STL sources as input, then you should set this
	315	# tag to YES in order to let doxygen match functions declarations and
	316	# definitions whose arguments contain STL classes (e.g. func(std::string);
	317	# versus func(std::string) {}). This also make the inheritance and collaboration
	318	# diagrams that involve STL classes more complete and accurate.
	319	# The default value is: NO.
	320
	321	BUILTIN_STL_SUPPORT = YES
	322
	323	# If you use Microsoft's C++/CLI language, you should set this option to YES to
	324	# enable parsing support.
	325	# The default value is: NO.
	326
	327	CPP_CLI_SUPPORT = NO
	328
	329	# Set the SIP_SUPPORT tag to YES if your project consists of sip (see:
	330	# http://www.riverbankcomputing.co.uk/software/sip/intro) sources only. Doxygen
	331	# will parse them like normal C++ but will assume all classes use public instead
	332	# of private inheritance when no explicit protection keyword is present.
	333	# The default value is: NO.
	334
	335	SIP_SUPPORT = NO
	336
	337	# For Microsoft's IDL there are propget and propput attributes to indicate
	338	# getter and setter methods for a property. Setting this option to YES will make
	339	# doxygen to replace the get and set methods by a property in the documentation.
	340	# This will only work if the methods are indeed getting or setting a simple
	341	# type. If this is not the case, or you want to show the methods anyway, you
	342	# should set this option to NO.
	343	# The default value is: YES.
	344
	345	IDL_PROPERTY_SUPPORT = YES
	346
	347	# If member grouping is used in the documentation and the DISTRIBUTE_GROUP_DOC
	348	# tag is set to YES, then doxygen will reuse the documentation of the first
	349	# member in the group (if any) for the other members of the group. By default
	350	# all members of a group must be documented explicitly.
	351	# The default value is: NO.
	352
	353	DISTRIBUTE_GROUP_DOC = NO
	354
	355	# Set the SUBGROUPING tag to YES to allow class member groups of the same type
	356	# (for instance a group of public functions) to be put as a subgroup of that
	357	# type (e.g. under the Public Functions section). Set it to NO to prevent
	358	# subgrouping. Alternatively, this can be done per class using the
	359	# \nosubgrouping command.
	360	# The default value is: YES.
	361
	362	SUBGROUPING = YES
	363
	364	# When the INLINE_GROUPED_CLASSES tag is set to YES, classes, structs and unions
	365	# are shown inside the group in which they are included (e.g. using \ingroup)
	366	# instead of on a separate page (for HTML and Man pages) or section (for LaTeX
	367	# and RTF).
	368	#
	369	# Note that this feature does not work in combination with
	370	# SEPARATE_MEMBER_PAGES.
	371	# The default value is: NO.
	372
	373	INLINE_GROUPED_CLASSES = NO
	374
	375	# When the INLINE_SIMPLE_STRUCTS tag is set to YES, structs, classes, and unions
	376	# with only public data fields or simple typedef fields will be shown inline in
	377	# the documentation of the scope in which they are defined (i.e. file,
	378	# namespace, or group documentation), provided this scope is documented. If set
	379	# to NO, structs, classes, and unions are shown on a separate page (for HTML and
	380	# Man pages) or section (for LaTeX and RTF).
	381	# The default value is: NO.
	382
	383	INLINE_SIMPLE_STRUCTS = NO
	384
	385	# When TYPEDEF_HIDES_STRUCT tag is enabled, a typedef of a struct, union, or
	386	# enum is documented as struct, union, or enum with the name of the typedef. So
	387	# typedef struct TypeS {} TypeT, will appear in the documentation as a struct
	388	# with name TypeT. When disabled the typedef will appear as a member of a file,
	389	# namespace, or class. And the struct will be named TypeS. This can typically be
	390	# useful for C code in case the coding convention dictates that all compound
	391	# types are typedef'ed and only the typedef is referenced, never the tag name.
	392	# The default value is: NO.
	393
	394	TYPEDEF_HIDES_STRUCT = YES
	395
	396	# The size of the symbol lookup cache can be set using LOOKUP_CACHE_SIZE. This
	397	# cache is used to resolve symbols given their name and scope. Since this can be
	398	# an expensive process and often the same symbol appears multiple times in the
	399	# code, doxygen keeps a cache of pre-resolved symbols. If the cache is too small
	400	# doxygen will become slower. If the cache is too large, memory is wasted. The
	401	# cache size is given by this formula: 2^(16+LOOKUP_CACHE_SIZE). The valid range
	402	# is 0..9, the default is 0, corresponding to a cache size of 2^16=65536
	403	# symbols. At the end of a run doxygen will report the cache usage and suggest
	404	# the optimal cache size from a speed point of view.
	405	# Minimum value: 0, maximum value: 9, default value: 0.
	406
	407	LOOKUP_CACHE_SIZE = 0
	408
	409	#---------------------------------------------------------------------------
	410	# Build related configuration options
	411	#---------------------------------------------------------------------------
	412
	413	# If the EXTRACT_ALL tag is set to YES doxygen will assume all entities in
	414	# documentation are documented, even if no documentation was available. Private
	415	# class members and static file members will be hidden unless the
	416	# EXTRACT_PRIVATE respectively EXTRACT_STATIC tags are set to YES.
	417	# Note: This will also disable the warnings about undocumented members that are
	418	# normally produced when WARNINGS is set to YES.
	419	# The default value is: NO.
	420
	421	EXTRACT_ALL = YES
	422
	423	# If the EXTRACT_PRIVATE tag is set to YES all private members of a class will
	424	# be included in the documentation.
	425	# The default value is: NO.
	426
	427	EXTRACT_PRIVATE = NO
	428
	429	# If the EXTRACT_PACKAGE tag is set to YES all members with package or internal
	430	# scope will be included in the documentation.
	431	# The default value is: NO.
	432
	433	EXTRACT_PACKAGE = NO
	434
	435	# If the EXTRACT_STATIC tag is set to YES all static members of a file will be
	436	# included in the documentation.
	437	# The default value is: NO.
	438
	439	EXTRACT_STATIC = YES
	440
	441	# If the EXTRACT_LOCAL_CLASSES tag is set to YES classes (and structs) defined
	442	# locally in source files will be included in the documentation. If set to NO
	443	# only classes defined in header files are included. Does not have any effect
	444	# for Java sources.
	445	# The default value is: YES.
	446
	447	EXTRACT_LOCAL_CLASSES = YES
	448
	449	# This flag is only useful for Objective-C code. When set to YES local methods,
	450	# which are defined in the implementation section but not in the interface are
	451	# included in the documentation. If set to NO only methods in the interface are
	452	# included.
	453	# The default value is: NO.
	454
	455	EXTRACT_LOCAL_METHODS = NO
	456
	457	# If this flag is set to YES, the members of anonymous namespaces will be
	458	# extracted and appear in the documentation as a namespace called
	459	# 'anonymous_namespace{file}', where file will be replaced with the base name of
	460	# the file that contains the anonymous namespace. By default anonymous namespace
	461	# are hidden.
	462	# The default value is: NO.
	463
	464	EXTRACT_ANON_NSPACES = NO
	465
	466	# If the HIDE_UNDOC_MEMBERS tag is set to YES, doxygen will hide all
	467	# undocumented members inside documented classes or files. If set to NO these
	468	# members will be included in the various overviews, but no documentation
	469	# section is generated. This option has no effect if EXTRACT_ALL is enabled.
	470	# The default value is: NO.
	471
	472	HIDE_UNDOC_MEMBERS = YES
	473
	474	# If the HIDE_UNDOC_CLASSES tag is set to YES, doxygen will hide all
	475	# undocumented classes that are normally visible in the class hierarchy. If set
	476	# to NO these classes will be included in the various overviews. This option has
	477	# no effect if EXTRACT_ALL is enabled.
	478	# The default value is: NO.
	479
	480	HIDE_UNDOC_CLASSES = YES
	481
	482	# If the HIDE_FRIEND_COMPOUNDS tag is set to YES, doxygen will hide all friend
	483	# (class\|struct\|union) declarations. If set to NO these declarations will be
	484	# included in the documentation.
	485	# The default value is: NO.
	486
	487	HIDE_FRIEND_COMPOUNDS = NO
	488
	489	# If the HIDE_IN_BODY_DOCS tag is set to YES, doxygen will hide any
	490	# documentation blocks found inside the body of a function. If set to NO these
	491	# blocks will be appended to the function's detailed documentation block.
	492	# The default value is: NO.
	493
	494	HIDE_IN_BODY_DOCS = NO
	495
	496	# The INTERNAL_DOCS tag determines if documentation that is typed after a
	497	# \internal command is included. If the tag is set to NO then the documentation
	498	# will be excluded. Set it to YES to include the internal documentation.
	499	# The default value is: NO.
	500
	501	INTERNAL_DOCS = NO
	502
	503	# If the CASE_SENSE_NAMES tag is set to NO then doxygen will only generate file
	504	# names in lower-case letters. If set to YES upper-case letters are also
	505	# allowed. This is useful if you have classes or files whose names only differ
	506	# in case and if your file system supports case sensitive file names. Windows
	507	# and Mac users are advised to set this option to NO.
	508	# The default value is: system dependent.
	509
	510	CASE_SENSE_NAMES = NO
	511
	512	# If the HIDE_SCOPE_NAMES tag is set to NO then doxygen will show members with
	513	# their full class and namespace scopes in the documentation. If set to YES the
	514	# scope will be hidden.
	515	# The default value is: NO.
	516
	517	HIDE_SCOPE_NAMES = NO
	518
	519	# If the SHOW_INCLUDE_FILES tag is set to YES then doxygen will put a list of
	520	# the files that are included by a file in the documentation of that file.
	521	# The default value is: YES.
	522
	523	SHOW_INCLUDE_FILES = NO
	524
	525	# If the SHOW_GROUPED_MEMB_INC tag is set to YES then Doxygen will add for each
	526	# grouped member an include statement to the documentation, telling the reader
	527	# which file to include in order to use the member.
	528	# The default value is: NO.
	529
	530	SHOW_GROUPED_MEMB_INC = NO
	531
	532	# If the FORCE_LOCAL_INCLUDES tag is set to YES then doxygen will list include
	533	# files with double quotes in the documentation rather than with sharp brackets.
	534	# The default value is: NO.
	535
	536	FORCE_LOCAL_INCLUDES = NO
	537
	538	# If the INLINE_INFO tag is set to YES then a tag [inline] is inserted in the
	539	# documentation for inline members.
	540	# The default value is: YES.
	541
	542	INLINE_INFO = YES
	543
	544	# If the SORT_MEMBER_DOCS tag is set to YES then doxygen will sort the
	545	# (detailed) documentation of file and class members alphabetically by member
	546	# name. If set to NO the members will appear in declaration order.
	547	# The default value is: YES.
	548
	549	SORT_MEMBER_DOCS = YES
	550
	551	# If the SORT_BRIEF_DOCS tag is set to YES then doxygen will sort the brief
	552	# descriptions of file, namespace and class members alphabetically by member
	553	# name. If set to NO the members will appear in declaration order. Note that
	554	# this will also influence the order of the classes in the class list.
	555	# The default value is: NO.
	556
	557	SORT_BRIEF_DOCS = YES
	558
	559	# If the SORT_MEMBERS_CTORS_1ST tag is set to YES then doxygen will sort the
	560	# (brief and detailed) documentation of class members so that constructors and
	561	# destructors are listed first. If set to NO the constructors will appear in the
	562	# respective orders defined by SORT_BRIEF_DOCS and SORT_MEMBER_DOCS.
	563	# Note: If SORT_BRIEF_DOCS is set to NO this option is ignored for sorting brief
	564	# member documentation.
	565	# Note: If SORT_MEMBER_DOCS is set to NO this option is ignored for sorting
	566	# detailed member documentation.
	567	# The default value is: NO.
	568
	569	SORT_MEMBERS_CTORS_1ST = NO
	570
	571	# If the SORT_GROUP_NAMES tag is set to YES then doxygen will sort the hierarchy
	572	# of group names into alphabetical order. If set to NO the group names will
	573	# appear in their defined order.
	574	# The default value is: NO.
	575
	576	SORT_GROUP_NAMES = NO
	577
	578	# If the SORT_BY_SCOPE_NAME tag is set to YES, the class list will be sorted by
	579	# fully-qualified names, including namespaces. If set to NO, the class list will
	580	# be sorted only by class name, not including the namespace part.
	581	# Note: This option is not very useful if HIDE_SCOPE_NAMES is set to YES.
	582	# Note: This option applies only to the class list, not to the alphabetical
	583	# list.
	584	# The default value is: NO.
	585
	586	SORT_BY_SCOPE_NAME = YES
	587
	588	# If the STRICT_PROTO_MATCHING option is enabled and doxygen fails to do proper
	589	# type resolution of all parameters of a function it will reject a match between
	590	# the prototype and the implementation of a member function even if there is
	591	# only one candidate or it is obvious which candidate to choose by doing a
	592	# simple string match. By disabling STRICT_PROTO_MATCHING doxygen will still
	593	# accept a match between prototype and implementation in such cases.
	594	# The default value is: NO.
	595
	596	STRICT_PROTO_MATCHING = NO
	597
	598	# The GENERATE_TODOLIST tag can be used to enable ( YES) or disable ( NO) the
	599	# todo list. This list is created by putting \todo commands in the
	600	# documentation.
	601	# The default value is: YES.
	602
	603	GENERATE_TODOLIST = YES
	604
	605	# The GENERATE_TESTLIST tag can be used to enable ( YES) or disable ( NO) the
	606	# test list. This list is created by putting \test commands in the
	607	# documentation.
	608	# The default value is: YES.
	609
	610	GENERATE_TESTLIST = YES
	611
	612	# The GENERATE_BUGLIST tag can be used to enable ( YES) or disable ( NO) the bug
	613	# list. This list is created by putting \bug commands in the documentation.
	614	# The default value is: YES.
	615
	616	GENERATE_BUGLIST = YES
	617
	618	# The GENERATE_DEPRECATEDLIST tag can be used to enable ( YES) or disable ( NO)
	619	# the deprecated list. This list is created by putting \deprecated commands in
	620	# the documentation.
	621	# The default value is: YES.
	622
	623	GENERATE_DEPRECATEDLIST= YES
	624
	625	# The ENABLED_SECTIONS tag can be used to enable conditional documentation
	626	# sections, marked by \if <section_label> ... \endif and \cond <section_label>
	627	# ... \endcond blocks.
	628
	629	ENABLED_SECTIONS =
	630
	631	# The MAX_INITIALIZER_LINES tag determines the maximum number of lines that the
	632	# initial value of a variable or macro / define can have for it to appear in the
	633	# documentation. If the initializer consists of more lines than specified here
	634	# it will be hidden. Use a value of 0 to hide initializers completely. The
	635	# appearance of the value of individual variables and macros / defines can be
	636	# controlled using \showinitializer or \hideinitializer command in the
	637	# documentation regardless of this setting.
	638	# Minimum value: 0, maximum value: 10000, default value: 30.
	639
	640	MAX_INITIALIZER_LINES = 30
	641
	642	# Set the SHOW_USED_FILES tag to NO to disable the list of files generated at
	643	# the bottom of the documentation of classes and structs. If set to YES the list
	644	# will mention the files that were used to generate the documentation.
	645	# The default value is: YES.
	646
	647	SHOW_USED_FILES = YES
	648
	649	# Set the SHOW_FILES tag to NO to disable the generation of the Files page. This
	650	# will remove the Files entry from the Quick Index and from the Folder Tree View
	651	# (if specified).
	652	# The default value is: YES.
	653
	654	SHOW_FILES = YES
	655
	656	# Set the SHOW_NAMESPACES tag to NO to disable the generation of the Namespaces
	657	# page. This will remove the Namespaces entry from the Quick Index and from the
	658	# Folder Tree View (if specified).
	659	# The default value is: YES.
	660
	661	SHOW_NAMESPACES = YES
	662
	663	# The FILE_VERSION_FILTER tag can be used to specify a program or script that
	664	# doxygen should invoke to get the current version for each file (typically from
	665	# the version control system). Doxygen will invoke the program by executing (via
	666	# popen()) the command command input-file, where command is the value of the
	667	# FILE_VERSION_FILTER tag, and input-file is the name of an input file provided
	668	# by doxygen. Whatever the program writes to standard output is used as the file
	669	# version. For an example see the documentation.
	670
	671	FILE_VERSION_FILTER =
	672
	673	# The LAYOUT_FILE tag can be used to specify a layout file which will be parsed
	674	# by doxygen. The layout file controls the global structure of the generated
	675	# output files in an output format independent way. To create the layout file
	676	# that represents doxygen's defaults, run doxygen with the -l option. You can
	677	# optionally specify a file name after the option, if omitted DoxygenLayout.xml
	678	# will be used as the name of the layout file.
	679	#
	680	# Note that if you run doxygen from a directory containing a file called
	681	# DoxygenLayout.xml, doxygen will parse it automatically even if the LAYOUT_FILE
	682	# tag is left empty.
	683
	684	LAYOUT_FILE =
	685
	686	# The CITE_BIB_FILES tag can be used to specify one or more bib files containing
	687	# the reference definitions. This must be a list of .bib files. The .bib
	688	# extension is automatically appended if omitted. This requires the bibtex tool
	689	# to be installed. See also http://en.wikipedia.org/wiki/BibTeX for more info.
	690	# For LaTeX the style of the bibliography can be controlled using
	691	# LATEX_BIB_STYLE. To use this feature you need bibtex and perl available in the
	692	# search path. Do not use file names with spaces, bibtex cannot handle them. See
	693	# also \cite for info how to create references.
	694
	695	CITE_BIB_FILES =
	696
	697	#---------------------------------------------------------------------------
	698	# Configuration options related to warning and progress messages
	699	#---------------------------------------------------------------------------
	700
	701	# The QUIET tag can be used to turn on/off the messages that are generated to
	702	# standard output by doxygen. If QUIET is set to YES this implies that the
	703	# messages are off.
	704	# The default value is: NO.
	705
	706	QUIET = NO
	707
	708	# The WARNINGS tag can be used to turn on/off the warning messages that are
	709	# generated to standard error ( stderr) by doxygen. If WARNINGS is set to YES
	710	# this implies that the warnings are on.
	711	#
	712	# Tip: Turn warnings on while writing the documentation.
	713	# The default value is: YES.
	714
	715	WARNINGS = YES
	716
	717	# If the WARN_IF_UNDOCUMENTED tag is set to YES, then doxygen will generate
	718	# warnings for undocumented members. If EXTRACT_ALL is set to YES then this flag
	719	# will automatically be disabled.
	720	# The default value is: YES.
	721
	722	WARN_IF_UNDOCUMENTED = YES
	723
	724	# If the WARN_IF_DOC_ERROR tag is set to YES, doxygen will generate warnings for
	725	# potential errors in the documentation, such as not documenting some parameters
	726	# in a documented function, or documenting parameters that don't exist or using
	727	# markup commands wrongly.
	728	# The default value is: YES.
	729
	730	WARN_IF_DOC_ERROR = YES
	731
	732	# This WARN_NO_PARAMDOC option can be enabled to get warnings for functions that
	733	# are documented, but have no documentation for their parameters or return
	734	# value. If set to NO doxygen will only warn about wrong or incomplete parameter
	735	# documentation, but not about the absence of documentation.
	736	# The default value is: NO.
	737
	738	WARN_NO_PARAMDOC = NO
	739
	740	# The WARN_FORMAT tag determines the format of the warning messages that doxygen
	741	# can produce. The string should contain the $file, $line, and $text tags, which
	742	# will be replaced by the file and line number from which the warning originated
	743	# and the warning text. Optionally the format may contain $version, which will
	744	# be replaced by the version of the file (if it could be obtained via
	745	# FILE_VERSION_FILTER)
	746	# The default value is: $file:$line: $text.
	747
	748	WARN_FORMAT = "$file:$line: $text"
	749
	750	# The WARN_LOGFILE tag can be used to specify a file to which warning and error
	751	# messages should be written. If left blank the output is written to standard
	752	# error (stderr).
	753
	754	WARN_LOGFILE =
	755
	756	#---------------------------------------------------------------------------
	757	# Configuration options related to the input files
	758	#---------------------------------------------------------------------------
	759
	760	# The INPUT tag is used to specify the files and/or directories that contain
	761	# documented source files. You may enter file names like myfile.cpp or
	762	# directories like /usr/src/myproject. Separate the files or directories with
	763	# spaces.
	764	# Note: If this tag is empty the current directory is searched.
	765
	766	INPUT = ../doc/dox_cmd.h
	767
	768	# This tag can be used to specify the character encoding of the source files
	769	# that doxygen parses. Internally doxygen uses the UTF-8 encoding. Doxygen uses
	770	# libiconv (or the iconv built into libc) for the transcoding. See the libiconv
	771	# documentation (see: http://www.gnu.org/software/libiconv) for the list of
	772	# possible encodings.
	773	# The default value is: UTF-8.
	774
	775	INPUT_ENCODING = UTF-8
	776
	777	# If the value of the INPUT tag contains directories, you can use the
	778	# FILE_PATTERNS tag to specify one or more wildcard patterns (like *.cpp and
	779	# *.h) to filter out the source-files in the directories. If left blank the
	780	# following patterns are tested:.c, .cc, .cxx, .cpp, .c++, .java, *.ii,
	781	# .ixx, .ipp, .i++, .inl, .idl, .ddl, .odl, .h, .hh, .hxx, *.hpp,
	782	# .h++, .cs, .d, .php, .php4, .php5, .phtml, .inc, .m, .markdown,
	783	# .md, .mm, .dox, .py, .f90, .f, .for, .tcl, .vhd, .vhdl, *.ucf,
	784	# .qsf, .as and *.js.
	785
	786	FILE_PATTERNS = *.c \
	787	*.cc \
	788	*.cxx \
	789	*.cpp \
	790	*.c++ \
	791	*.d \
	792	*.java \
	793	*.ii \
	794	*.ixx \
	795	*.ipp \
	796	*.i++ \
	797	*.inl \
	798	*.h \
	799	*.hh \
	800	*.hxx \
	801	*.hpp \
	802	*.h++ \
	803	*.idl \
	804	*.odl \
	805	*.cs \
	806	*.php \
	807	*.php3 \
	808	*.inc \
	809	*.m \
	810	*.mm \
	811	*.dox \
	812	*.py
	813
	814	# The RECURSIVE tag can be used to specify whether or not subdirectories should
	815	# be searched for input files as well.
	816	# The default value is: NO.
	817
	818	RECURSIVE = YES
	819
	820	# The EXCLUDE tag can be used to specify files and/or directories that should be
	821	# excluded from the INPUT source files. This way you can easily exclude a
	822	# subdirectory from a directory tree whose root is specified with the INPUT tag.
	823	#
	824	# Note that relative paths are relative to the directory from which doxygen is
	825	# run.
	826
	827	EXCLUDE =
	828
	829	# The EXCLUDE_SYMLINKS tag can be used to select whether or not files or
	830	# directories that are symbolic links (a Unix file system feature) are excluded
	831	# from the input.
	832	# The default value is: NO.
	833
	834	EXCLUDE_SYMLINKS = NO
	835
	836	# If the value of the INPUT tag contains directories, you can use the
	837	# EXCLUDE_PATTERNS tag to specify one or more wildcard patterns to exclude
	838	# certain files from those directories.
	839	#
	840	# Note that the wildcards are matched against the file with absolute path, so to
	841	# exclude all test directories for example use the pattern /test/
	842
	843	EXCLUDE_PATTERNS = /.svn/ \
	844	*/.svn
	845
	846	# The EXCLUDE_SYMBOLS tag can be used to specify one or more symbol names
	847	# (namespaces, classes, functions, etc.) that should be excluded from the
	848	# output. The symbol name can be a fully qualified name, a word, or if the
	849	# wildcard * is used, a substring. Examples: ANamespace, AClass,
	850	# AClass::ANamespace, ANamespace::*Test
	851	#
	852	# Note that the wildcards are matched against the file with absolute path, so to
	853	# exclude all test directories use the pattern /test/
	854
	855	EXCLUDE_SYMBOLS =
	856
	857	# The EXAMPLE_PATH tag can be used to specify one or more files or directories
	858	# that contain example code fragments that are included (see the \include
	859	# command).
	860
	861	EXAMPLE_PATH =
	862
	863	# If the value of the EXAMPLE_PATH tag contains directories, you can use the
	864	# EXAMPLE_PATTERNS tag to specify one or more wildcard pattern (like *.cpp and
	865	# *.h) to filter out the source-files in the directories. If left blank all
	866	# files are included.
	867
	868	EXAMPLE_PATTERNS = *
	869
	870	# If the EXAMPLE_RECURSIVE tag is set to YES then subdirectories will be
	871	# searched for input files to be used with the \include or \dontinclude commands
	872	# irrespective of the value of the RECURSIVE tag.
	873	# The default value is: NO.
	874
	875	EXAMPLE_RECURSIVE = NO
	876
	877	# The IMAGE_PATH tag can be used to specify one or more files or directories
	878	# that contain images that are to be included in the documentation (see the
	879	# \image command).
	880
	881	IMAGE_PATH =
	882
	883	# The INPUT_FILTER tag can be used to specify a program that doxygen should
	884	# invoke to filter for each input file. Doxygen will invoke the filter program
	885	# by executing (via popen()) the command:
	886	#
	887	# <filter> <input-file>
	888	#
	889	# where <filter> is the value of the INPUT_FILTER tag, and <input-file> is the
	890	# name of an input file. Doxygen will then use the output that the filter
	891	# program writes to standard output. If FILTER_PATTERNS is specified, this tag
	892	# will be ignored.
	893	#
	894	# Note that the filter must not add or remove lines; it is applied before the
	895	# code is scanned, but not when the output code is generated. If lines are added
	896	# or removed, the anchors will not be placed correctly.
	897
	898	INPUT_FILTER =
	899
	900	# The FILTER_PATTERNS tag can be used to specify filters on a per file pattern
	901	# basis. Doxygen will compare the file name with each pattern and apply the
	902	# filter if there is a match. The filters are a list of the form: pattern=filter
	903	# (like *.cpp=my_cpp_filter). See INPUT_FILTER for further information on how
	904	# filters are used. If the FILTER_PATTERNS tag is empty or if none of the
	905	# patterns match the file name, INPUT_FILTER is applied.
	906
	907	FILTER_PATTERNS =
	908
	909	# If the FILTER_SOURCE_FILES tag is set to YES, the input filter (if set using
	910	# INPUT_FILTER ) will also be used to filter the input files that are used for
	911	# producing the source files to browse (i.e. when SOURCE_BROWSER is set to YES).
	912	# The default value is: NO.
	913
	914	FILTER_SOURCE_FILES = NO
	915
	916	# The FILTER_SOURCE_PATTERNS tag can be used to specify source filters per file
	917	# pattern. A pattern will override the setting for FILTER_PATTERN (if any) and
	918	# it is also possible to disable source filtering for a specific pattern using
	919	# *.ext= (so without naming a filter).
	920	# This tag requires that the tag FILTER_SOURCE_FILES is set to YES.
	921
	922	FILTER_SOURCE_PATTERNS =
	923
	924	# If the USE_MDFILE_AS_MAINPAGE tag refers to the name of a markdown file that
	925	# is part of the input, its contents will be placed on the main page
	926	# (index.html). This can be useful if you have a project on for instance GitHub
	927	# and want to reuse the introduction page also for the doxygen output.
	928
	929	USE_MDFILE_AS_MAINPAGE =
	930
	931	#---------------------------------------------------------------------------
	932	# Configuration options related to source browsing
	933	#---------------------------------------------------------------------------
	934
	935	# If the SOURCE_BROWSER tag is set to YES then a list of source files will be
	936	# generated. Documented entities will be cross-referenced with these sources.
	937	#
	938	# Note: To get rid of all source code in the generated output, make sure that
	939	# also VERBATIM_HEADERS is set to NO.
	940	# The default value is: NO.
	941
	942	SOURCE_BROWSER = NO
	943
	944	# Setting the INLINE_SOURCES tag to YES will include the body of functions,
	945	# classes and enums directly into the documentation.
	946	# The default value is: NO.
	947
	948	INLINE_SOURCES = NO
	949
	950	# Setting the STRIP_CODE_COMMENTS tag to YES will instruct doxygen to hide any
	951	# special comment blocks from generated source code fragments. Normal C, C++ and
	952	# Fortran comments will always remain visible.
	953	# The default value is: YES.
	954
	955	STRIP_CODE_COMMENTS = YES
	956
	957	# If the REFERENCED_BY_RELATION tag is set to YES then for each documented
	958	# function all documented functions referencing it will be listed.
	959	# The default value is: NO.
	960
	961	REFERENCED_BY_RELATION = NO
	962
	963	# If the REFERENCES_RELATION tag is set to YES then for each documented function
	964	# all documented entities called/used by that function will be listed.
	965	# The default value is: NO.
	966
	967	REFERENCES_RELATION = NO
	968
	969	# If the REFERENCES_LINK_SOURCE tag is set to YES and SOURCE_BROWSER tag is set
	970	# to YES, then the hyperlinks from functions in REFERENCES_RELATION and
	971	# REFERENCED_BY_RELATION lists will link to the source code. Otherwise they will
	972	# link to the documentation.
	973	# The default value is: YES.
	974
	975	REFERENCES_LINK_SOURCE = YES
	976
	977	# If SOURCE_TOOLTIPS is enabled (the default) then hovering a hyperlink in the
	978	# source code will show a tooltip with additional information such as prototype,
	979	# brief description and links to the definition and documentation. Since this
	980	# will make the HTML file larger and loading of large files a bit slower, you
	981	# can opt to disable this feature.
	982	# The default value is: YES.
	983	# This tag requires that the tag SOURCE_BROWSER is set to YES.
	984
	985	SOURCE_TOOLTIPS = YES
	986
	987	# If the USE_HTAGS tag is set to YES then the references to source code will
	988	# point to the HTML generated by the htags(1) tool instead of doxygen built-in
	989	# source browser. The htags tool is part of GNU's global source tagging system
	990	# (see http://www.gnu.org/software/global/global.html). You will need version
	991	# 4.8.6 or higher.
	992	#
	993	# To use it do the following:
	994	# - Install the latest version of global
	995	# - Enable SOURCE_BROWSER and USE_HTAGS in the config file
	996	# - Make sure the INPUT points to the root of the source tree
	997	# - Run doxygen as normal
	998	#
	999	# Doxygen will invoke htags (and that will in turn invoke gtags), so these
	1000	# tools must be available from the command line (i.e. in the search path).
	1001	#
	1002	# The result: instead of the source browser generated by doxygen, the links to
	1003	# source code will now point to the output of htags.
	1004	# The default value is: NO.
	1005	# This tag requires that the tag SOURCE_BROWSER is set to YES.
	1006
	1007	USE_HTAGS = NO
	1008
	1009	# If the VERBATIM_HEADERS tag is set the YES then doxygen will generate a
	1010	# verbatim copy of the header file for each class for which an include is
	1011	# specified. Set to NO to disable this.
	1012	# See also: Section \class.
	1013	# The default value is: YES.
	1014
	1015	VERBATIM_HEADERS = NO
	1016
	1017	# If the CLANG_ASSISTED_PARSING tag is set to YES, then doxygen will use the
	1018	# clang parser (see: http://clang.llvm.org/) for more accurate parsing at the
	1019	# cost of reduced performance. This can be particularly helpful with template
	1020	# rich C++ code for which doxygen's built-in parser lacks the necessary type
	1021	# information.
	1022	# Note: The availability of this option depends on whether or not doxygen was
	1023	# compiled with the --with-libclang option.
	1024	# The default value is: NO.
	1025
	1026	CLANG_ASSISTED_PARSING = NO
	1027
	1028	# If clang assisted parsing is enabled you can provide the compiler with command
	1029	# line options that you would normally use when invoking the compiler. Note that
	1030	# the include paths will already be set by doxygen for the files and directories
	1031	# specified with INPUT and INCLUDE_PATH.
	1032	# This tag requires that the tag CLANG_ASSISTED_PARSING is set to YES.
	1033
	1034	CLANG_OPTIONS =
	1035
	1036	#---------------------------------------------------------------------------
	1037	# Configuration options related to the alphabetical class index
	1038	#---------------------------------------------------------------------------
	1039
	1040	# If the ALPHABETICAL_INDEX tag is set to YES, an alphabetical index of all
	1041	# compounds will be generated. Enable this if the project contains a lot of
	1042	# classes, structs, unions or interfaces.
	1043	# The default value is: YES.
	1044
	1045	ALPHABETICAL_INDEX = NO
	1046
	1047	# The COLS_IN_ALPHA_INDEX tag can be used to specify the number of columns in
	1048	# which the alphabetical index list will be split.
	1049	# Minimum value: 1, maximum value: 20, default value: 5.
	1050	# This tag requires that the tag ALPHABETICAL_INDEX is set to YES.
	1051
	1052	COLS_IN_ALPHA_INDEX = 5
	1053
	1054	# In case all classes in a project start with a common prefix, all classes will
	1055	# be put under the same header in the alphabetical index. The IGNORE_PREFIX tag
	1056	# can be used to specify a prefix (or a list of prefixes) that should be ignored
	1057	# while generating the index headers.
	1058	# This tag requires that the tag ALPHABETICAL_INDEX is set to YES.
	1059
	1060	IGNORE_PREFIX =
	1061
	1062	#---------------------------------------------------------------------------
	1063	# Configuration options related to the HTML output
	1064	#---------------------------------------------------------------------------
	1065
	1066	# If the GENERATE_HTML tag is set to YES doxygen will generate HTML output
	1067	# The default value is: YES.
	1068
	1069	GENERATE_HTML = YES
	1070
	1071	# The HTML_OUTPUT tag is used to specify where the HTML docs will be put. If a
	1072	# relative path is entered the value of OUTPUT_DIRECTORY will be put in front of
	1073	# it.
	1074	# The default directory is: html.
	1075	# This tag requires that the tag GENERATE_HTML is set to YES.
	1076
	1077	HTML_OUTPUT = AssimpCmdDoc_Html
	1078
	1079	# The HTML_FILE_EXTENSION tag can be used to specify the file extension for each
	1080	# generated HTML page (for example: .htm, .php, .asp).
	1081	# The default value is: .html.
	1082	# This tag requires that the tag GENERATE_HTML is set to YES.
	1083
	1084	HTML_FILE_EXTENSION = .html
	1085
	1086	# The HTML_HEADER tag can be used to specify a user-defined HTML header file for
	1087	# each generated HTML page. If the tag is left blank doxygen will generate a
	1088	# standard header.
	1089	#
	1090	# To get valid HTML the header file that includes any scripts and style sheets
	1091	# that doxygen needs, which is dependent on the configuration options used (e.g.
	1092	# the setting GENERATE_TREEVIEW). It is highly recommended to start with a
	1093	# default header using
	1094	# doxygen -w html new_header.html new_footer.html new_stylesheet.css
	1095	# YourConfigFile
	1096	# and then modify the file new_header.html. See also section "Doxygen usage"
	1097	# for information on how to generate the default header that doxygen normally
	1098	# uses.
	1099	# Note: The header is subject to change so you typically have to regenerate the
	1100	# default header when upgrading to a newer version of doxygen. For a description
	1101	# of the possible markers and block names see the documentation.
	1102	# This tag requires that the tag GENERATE_HTML is set to YES.
	1103
	1104	HTML_HEADER =
	1105
	1106	# The HTML_FOOTER tag can be used to specify a user-defined HTML footer for each
	1107	# generated HTML page. If the tag is left blank doxygen will generate a standard
	1108	# footer. See HTML_HEADER for more information on how to generate a default
	1109	# footer and what special commands can be used inside the footer. See also
	1110	# section "Doxygen usage" for information on how to generate the default footer
	1111	# that doxygen normally uses.
	1112	# This tag requires that the tag GENERATE_HTML is set to YES.
	1113
	1114	HTML_FOOTER =
	1115
	1116	# The HTML_STYLESHEET tag can be used to specify a user-defined cascading style
	1117	# sheet that is used by each HTML page. It can be used to fine-tune the look of
	1118	# the HTML output. If left blank doxygen will generate a default style sheet.
	1119	# See also section "Doxygen usage" for information on how to generate the style
	1120	# sheet that doxygen normally uses.
	1121	# Note: It is recommended to use HTML_EXTRA_STYLESHEET instead of this tag, as
	1122	# it is more robust and this tag (HTML_STYLESHEET) will in the future become
	1123	# obsolete.
	1124	# This tag requires that the tag GENERATE_HTML is set to YES.
	1125
	1126	HTML_STYLESHEET = style.css
	1127
	1128	# The HTML_EXTRA_STYLESHEET tag can be used to specify an additional user-
	1129	# defined cascading style sheet that is included after the standard style sheets
	1130	# created by doxygen. Using this option one can overrule certain style aspects.
	1131	# This is preferred over using HTML_STYLESHEET since it does not replace the
	1132	# standard style sheet and is therefor more robust against future updates.
	1133	# Doxygen will copy the style sheet file to the output directory. For an example
	1134	# see the documentation.
	1135	# This tag requires that the tag GENERATE_HTML is set to YES.
	1136
	1137	HTML_EXTRA_STYLESHEET =
	1138
	1139	# The HTML_EXTRA_FILES tag can be used to specify one or more extra images or
	1140	# other source files which should be copied to the HTML output directory. Note
	1141	# that these files will be copied to the base HTML output directory. Use the
	1142	# $relpath^ marker in the HTML_HEADER and/or HTML_FOOTER files to load these
	1143	# files. In the HTML_STYLESHEET file, use the file name only. Also note that the
	1144	# files will be copied as-is; there are no commands or markers available.
	1145	# This tag requires that the tag GENERATE_HTML is set to YES.
	1146
	1147	HTML_EXTRA_FILES =
	1148
	1149	# The HTML_COLORSTYLE_HUE tag controls the color of the HTML output. Doxygen
	1150	# will adjust the colors in the stylesheet and background images according to
	1151	# this color. Hue is specified as an angle on a colorwheel, see
	1152	# http://en.wikipedia.org/wiki/Hue for more information. For instance the value
	1153	# 0 represents red, 60 is yellow, 120 is green, 180 is cyan, 240 is blue, 300
	1154	# purple, and 360 is red again.
	1155	# Minimum value: 0, maximum value: 359, default value: 220.
	1156	# This tag requires that the tag GENERATE_HTML is set to YES.
	1157
	1158	HTML_COLORSTYLE_HUE = 220
	1159
	1160	# The HTML_COLORSTYLE_SAT tag controls the purity (or saturation) of the colors
	1161	# in the HTML output. For a value of 0 the output will use grayscales only. A
	1162	# value of 255 will produce the most vivid colors.
	1163	# Minimum value: 0, maximum value: 255, default value: 100.
	1164	# This tag requires that the tag GENERATE_HTML is set to YES.
	1165
	1166	HTML_COLORSTYLE_SAT = 100
	1167
	1168	# The HTML_COLORSTYLE_GAMMA tag controls the gamma correction applied to the
	1169	# luminance component of the colors in the HTML output. Values below 100
	1170	# gradually make the output lighter, whereas values above 100 make the output
	1171	# darker. The value divided by 100 is the actual gamma applied, so 80 represents
	1172	# a gamma of 0.8, The value 220 represents a gamma of 2.2, and 100 does not
	1173	# change the gamma.
	1174	# Minimum value: 40, maximum value: 240, default value: 80.
	1175	# This tag requires that the tag GENERATE_HTML is set to YES.
	1176
	1177	HTML_COLORSTYLE_GAMMA = 80
	1178
	1179	# If the HTML_TIMESTAMP tag is set to YES then the footer of each generated HTML
	1180	# page will contain the date and time when the page was generated. Setting this
	1181	# to NO can help when comparing the output of multiple runs.
	1182	# The default value is: YES.
	1183	# This tag requires that the tag GENERATE_HTML is set to YES.
	1184
	1185	HTML_TIMESTAMP = YES
	1186
	1187	# If the HTML_DYNAMIC_SECTIONS tag is set to YES then the generated HTML
	1188	# documentation will contain sections that can be hidden and shown after the
	1189	# page has loaded.
	1190	# The default value is: NO.
	1191	# This tag requires that the tag GENERATE_HTML is set to YES.
	1192
	1193	HTML_DYNAMIC_SECTIONS = NO
	1194
	1195	# With HTML_INDEX_NUM_ENTRIES one can control the preferred number of entries
	1196	# shown in the various tree structured indices initially; the user can expand
	1197	# and collapse entries dynamically later on. Doxygen will expand the tree to
	1198	# such a level that at most the specified number of entries are visible (unless
	1199	# a fully collapsed tree already exceeds this amount). So setting the number of
	1200	# entries 1 will produce a full collapsed tree by default. 0 is a special value
	1201	# representing an infinite number of entries and will result in a full expanded
	1202	# tree by default.
	1203	# Minimum value: 0, maximum value: 9999, default value: 100.
	1204	# This tag requires that the tag GENERATE_HTML is set to YES.
	1205
	1206	HTML_INDEX_NUM_ENTRIES = 100
	1207
	1208	# If the GENERATE_DOCSET tag is set to YES, additional index files will be
	1209	# generated that can be used as input for Apple's Xcode 3 integrated development
	1210	# environment (see: http://developer.apple.com/tools/xcode/), introduced with
	1211	# OSX 10.5 (Leopard). To create a documentation set, doxygen will generate a
	1212	# Makefile in the HTML output directory. Running make will produce the docset in
	1213	# that directory and running make install will install the docset in
	1214	# ~/Library/Developer/Shared/Documentation/DocSets so that Xcode will find it at
	1215	# startup. See http://developer.apple.com/tools/creatingdocsetswithdoxygen.html
	1216	# for more information.
	1217	# The default value is: NO.
	1218	# This tag requires that the tag GENERATE_HTML is set to YES.
	1219
	1220	GENERATE_DOCSET = NO
	1221
	1222	# This tag determines the name of the docset feed. A documentation feed provides
	1223	# an umbrella under which multiple documentation sets from a single provider
	1224	# (such as a company or product suite) can be grouped.
	1225	# The default value is: Doxygen generated docs.
	1226	# This tag requires that the tag GENERATE_DOCSET is set to YES.
	1227
	1228	DOCSET_FEEDNAME = "Doxygen generated docs"
	1229
	1230	# This tag specifies a string that should uniquely identify the documentation
	1231	# set bundle. This should be a reverse domain-name style string, e.g.
	1232	# com.mycompany.MyDocSet. Doxygen will append .docset to the name.
	1233	# The default value is: org.doxygen.Project.
	1234	# This tag requires that the tag GENERATE_DOCSET is set to YES.
	1235
	1236	DOCSET_BUNDLE_ID = org.doxygen.Project
	1237
	1238	# The DOCSET_PUBLISHER_ID tag specifies a string that should uniquely identify
	1239	# the documentation publisher. This should be a reverse domain-name style
	1240	# string, e.g. com.mycompany.MyDocSet.documentation.
	1241	# The default value is: org.doxygen.Publisher.
	1242	# This tag requires that the tag GENERATE_DOCSET is set to YES.
	1243
	1244	DOCSET_PUBLISHER_ID = org.doxygen.Publisher
	1245
	1246	# The DOCSET_PUBLISHER_NAME tag identifies the documentation publisher.
	1247	# The default value is: Publisher.
	1248	# This tag requires that the tag GENERATE_DOCSET is set to YES.
	1249
	1250	DOCSET_PUBLISHER_NAME = Publisher
	1251
	1252	# If the GENERATE_HTMLHELP tag is set to YES then doxygen generates three
	1253	# additional HTML index files: index.hhp, index.hhc, and index.hhk. The
	1254	# index.hhp is a project file that can be read by Microsoft's HTML Help Workshop
	1255	# (see: http://www.microsoft.com/en-us/download/details.aspx?id=21138) on
	1256	# Windows.
	1257	#
	1258	# The HTML Help Workshop contains a compiler that can convert all HTML output
	1259	# generated by doxygen into a single compiled HTML file (.chm). Compiled HTML
	1260	# files are now used as the Windows 98 help format, and will replace the old
	1261	# Windows help format (.hlp) on all Windows platforms in the future. Compressed
	1262	# HTML files also contain an index, a table of contents, and you can search for
	1263	# words in the documentation. The HTML workshop also contains a viewer for
	1264	# compressed HTML files.
	1265	# The default value is: NO.
	1266	# This tag requires that the tag GENERATE_HTML is set to YES.
	1267
	1268	GENERATE_HTMLHELP = YES
	1269
	1270	# The CHM_FILE tag can be used to specify the file name of the resulting .chm
	1271	# file. You can add a path in front of the file if the result should not be
	1272	# written to the html output directory.
	1273	# This tag requires that the tag GENERATE_HTMLHELP is set to YES.
	1274
	1275	CHM_FILE = AssimpCmdDoc.chm
	1276
	1277	# The HHC_LOCATION tag can be used to specify the location (absolute path
	1278	# including file name) of the HTML help compiler ( hhc.exe). If non-empty
	1279	# doxygen will try to run the HTML help compiler on the generated index.hhp.
	1280	# The file has to be specified with full path.
	1281	# This tag requires that the tag GENERATE_HTMLHELP is set to YES.
	1282
	1283	HHC_LOCATION = "C:/Program Files (x86)/HTML Help Workshop/hhc.exe"
	1284
	1285	# The GENERATE_CHI flag controls if a separate .chi index file is generated (
	1286	# YES) or that it should be included in the master .chm file ( NO).
	1287	# The default value is: NO.
	1288	# This tag requires that the tag GENERATE_HTMLHELP is set to YES.
	1289
	1290	GENERATE_CHI = NO
	1291
	1292	# The CHM_INDEX_ENCODING is used to encode HtmlHelp index ( hhk), content ( hhc)
	1293	# and project file content.
	1294	# This tag requires that the tag GENERATE_HTMLHELP is set to YES.
	1295
	1296	CHM_INDEX_ENCODING =
	1297
	1298	# The BINARY_TOC flag controls whether a binary table of contents is generated (
	1299	# YES) or a normal table of contents ( NO) in the .chm file. Furthermore it
	1300	# enables the Previous and Next buttons.
	1301	# The default value is: NO.
	1302	# This tag requires that the tag GENERATE_HTMLHELP is set to YES.
	1303
	1304	BINARY_TOC = NO
	1305
	1306	# The TOC_EXPAND flag can be set to YES to add extra items for group members to
	1307	# the table of contents of the HTML help documentation and to the tree view.
	1308	# The default value is: NO.
	1309	# This tag requires that the tag GENERATE_HTMLHELP is set to YES.
	1310
	1311	TOC_EXPAND = NO
	1312
	1313	# If the GENERATE_QHP tag is set to YES and both QHP_NAMESPACE and
	1314	# QHP_VIRTUAL_FOLDER are set, an additional index file will be generated that
	1315	# can be used as input for Qt's qhelpgenerator to generate a Qt Compressed Help
	1316	# (.qch) of the generated HTML documentation.
	1317	# The default value is: NO.
	1318	# This tag requires that the tag GENERATE_HTML is set to YES.
	1319
	1320	GENERATE_QHP = NO
	1321
	1322	# If the QHG_LOCATION tag is specified, the QCH_FILE tag can be used to specify
	1323	# the file name of the resulting .qch file. The path specified is relative to
	1324	# the HTML output folder.
	1325	# This tag requires that the tag GENERATE_QHP is set to YES.
	1326
	1327	QCH_FILE =
	1328
	1329	# The QHP_NAMESPACE tag specifies the namespace to use when generating Qt Help
	1330	# Project output. For more information please see Qt Help Project / Namespace
	1331	# (see: http://qt-project.org/doc/qt-4.8/qthelpproject.html#namespace).
	1332	# The default value is: org.doxygen.Project.
	1333	# This tag requires that the tag GENERATE_QHP is set to YES.
	1334
	1335	QHP_NAMESPACE = org.doxygen.Project
	1336
	1337	# The QHP_VIRTUAL_FOLDER tag specifies the namespace to use when generating Qt
	1338	# Help Project output. For more information please see Qt Help Project / Virtual
	1339	# Folders (see: http://qt-project.org/doc/qt-4.8/qthelpproject.html#virtual-
	1340	# folders).
	1341	# The default value is: doc.
	1342	# This tag requires that the tag GENERATE_QHP is set to YES.
	1343
	1344	QHP_VIRTUAL_FOLDER = doc
	1345
	1346	# If the QHP_CUST_FILTER_NAME tag is set, it specifies the name of a custom
	1347	# filter to add. For more information please see Qt Help Project / Custom
	1348	# Filters (see: http://qt-project.org/doc/qt-4.8/qthelpproject.html#custom-
	1349	# filters).
	1350	# This tag requires that the tag GENERATE_QHP is set to YES.
	1351
	1352	QHP_CUST_FILTER_NAME =
	1353
	1354	# The QHP_CUST_FILTER_ATTRS tag specifies the list of the attributes of the
	1355	# custom filter to add. For more information please see Qt Help Project / Custom
	1356	# Filters (see: http://qt-project.org/doc/qt-4.8/qthelpproject.html#custom-
	1357	# filters).
	1358	# This tag requires that the tag GENERATE_QHP is set to YES.
	1359
	1360	QHP_CUST_FILTER_ATTRS =
	1361
	1362	# The QHP_SECT_FILTER_ATTRS tag specifies the list of the attributes this
	1363	# project's filter section matches. Qt Help Project / Filter Attributes (see:
	1364	# http://qt-project.org/doc/qt-4.8/qthelpproject.html#filter-attributes).
	1365	# This tag requires that the tag GENERATE_QHP is set to YES.
	1366
	1367	QHP_SECT_FILTER_ATTRS =
	1368
	1369	# The QHG_LOCATION tag can be used to specify the location of Qt's
	1370	# qhelpgenerator. If non-empty doxygen will try to run qhelpgenerator on the
	1371	# generated .qhp file.
	1372	# This tag requires that the tag GENERATE_QHP is set to YES.
	1373
	1374	QHG_LOCATION =
	1375
	1376	# If the GENERATE_ECLIPSEHELP tag is set to YES, additional index files will be
	1377	# generated, together with the HTML files, they form an Eclipse help plugin. To
	1378	# install this plugin and make it available under the help contents menu in
	1379	# Eclipse, the contents of the directory containing the HTML and XML files needs
	1380	# to be copied into the plugins directory of eclipse. The name of the directory
	1381	# within the plugins directory should be the same as the ECLIPSE_DOC_ID value.
	1382	# After copying Eclipse needs to be restarted before the help appears.
	1383	# The default value is: NO.
	1384	# This tag requires that the tag GENERATE_HTML is set to YES.
	1385
	1386	GENERATE_ECLIPSEHELP = NO
	1387
	1388	# A unique identifier for the Eclipse help plugin. When installing the plugin
	1389	# the directory name containing the HTML and XML files should also have this
	1390	# name. Each documentation set should have its own identifier.
	1391	# The default value is: org.doxygen.Project.
	1392	# This tag requires that the tag GENERATE_ECLIPSEHELP is set to YES.
	1393
	1394	ECLIPSE_DOC_ID = org.doxygen.Project
	1395
	1396	# If you want full control over the layout of the generated HTML pages it might
	1397	# be necessary to disable the index and replace it with your own. The
	1398	# DISABLE_INDEX tag can be used to turn on/off the condensed index (tabs) at top
	1399	# of each HTML page. A value of NO enables the index and the value YES disables
	1400	# it. Since the tabs in the index contain the same information as the navigation
	1401	# tree, you can set this option to YES if you also set GENERATE_TREEVIEW to YES.
	1402	# The default value is: NO.
	1403	# This tag requires that the tag GENERATE_HTML is set to YES.
	1404
	1405	DISABLE_INDEX = NO
	1406
	1407	# The GENERATE_TREEVIEW tag is used to specify whether a tree-like index
	1408	# structure should be generated to display hierarchical information. If the tag
	1409	# value is set to YES, a side panel will be generated containing a tree-like
	1410	# index structure (just like the one that is generated for HTML Help). For this
	1411	# to work a browser that supports JavaScript, DHTML, CSS and frames is required
	1412	# (i.e. any modern browser). Windows users are probably better off using the
	1413	# HTML help feature. Via custom stylesheets (see HTML_EXTRA_STYLESHEET) one can
	1414	# further fine-tune the look of the index. As an example, the default style
	1415	# sheet generated by doxygen has an example that shows how to put an image at
	1416	# the root of the tree instead of the PROJECT_NAME. Since the tree basically has
	1417	# the same information as the tab index, you could consider setting
	1418	# DISABLE_INDEX to YES when enabling this option.
	1419	# The default value is: NO.
	1420	# This tag requires that the tag GENERATE_HTML is set to YES.
	1421
	1422	GENERATE_TREEVIEW = NO
	1423
	1424	# The ENUM_VALUES_PER_LINE tag can be used to set the number of enum values that
	1425	# doxygen will group on one line in the generated HTML documentation.
	1426	#
	1427	# Note that a value of 0 will completely suppress the enum values from appearing
	1428	# in the overview section.
	1429	# Minimum value: 0, maximum value: 20, default value: 4.
	1430	# This tag requires that the tag GENERATE_HTML is set to YES.
	1431
	1432	ENUM_VALUES_PER_LINE = 4
	1433
	1434	# If the treeview is enabled (see GENERATE_TREEVIEW) then this tag can be used
	1435	# to set the initial width (in pixels) of the frame in which the tree is shown.
	1436	# Minimum value: 0, maximum value: 1500, default value: 250.
	1437	# This tag requires that the tag GENERATE_HTML is set to YES.
	1438
	1439	TREEVIEW_WIDTH = 250
	1440
	1441	# When the EXT_LINKS_IN_WINDOW option is set to YES doxygen will open links to
	1442	# external symbols imported via tag files in a separate window.
	1443	# The default value is: NO.
	1444	# This tag requires that the tag GENERATE_HTML is set to YES.
	1445
	1446	EXT_LINKS_IN_WINDOW = NO
	1447
	1448	# Use this tag to change the font size of LaTeX formulas included as images in
	1449	# the HTML documentation. When you change the font size after a successful
	1450	# doxygen run you need to manually remove any form_*.png images from the HTML
	1451	# output directory to force them to be regenerated.
	1452	# Minimum value: 8, maximum value: 50, default value: 10.
	1453	# This tag requires that the tag GENERATE_HTML is set to YES.
	1454
	1455	FORMULA_FONTSIZE = 10
	1456
	1457	# Use the FORMULA_TRANPARENT tag to determine whether or not the images
	1458	# generated for formulas are transparent PNGs. Transparent PNGs are not
	1459	# supported properly for IE 6.0, but are supported on all modern browsers.
	1460	#
	1461	# Note that when changing this option you need to delete any form_*.png files in
	1462	# the HTML output directory before the changes have effect.
	1463	# The default value is: YES.
	1464	# This tag requires that the tag GENERATE_HTML is set to YES.
	1465
	1466	FORMULA_TRANSPARENT = YES
	1467
	1468	# Enable the USE_MATHJAX option to render LaTeX formulas using MathJax (see
	1469	# http://www.mathjax.org) which uses client side Javascript for the rendering
	1470	# instead of using prerendered bitmaps. Use this if you do not have LaTeX
	1471	# installed or if you want to formulas look prettier in the HTML output. When
	1472	# enabled you may also need to install MathJax separately and configure the path
	1473	# to it using the MATHJAX_RELPATH option.
	1474	# The default value is: NO.
	1475	# This tag requires that the tag GENERATE_HTML is set to YES.
	1476
	1477	USE_MATHJAX = NO
	1478
	1479	# When MathJax is enabled you can set the default output format to be used for
	1480	# the MathJax output. See the MathJax site (see:
	1481	# http://docs.mathjax.org/en/latest/output.html) for more details.
	1482	# Possible values are: HTML-CSS (which is slower, but has the best
	1483	# compatibility), NativeMML (i.e. MathML) and SVG.
	1484	# The default value is: HTML-CSS.
	1485	# This tag requires that the tag USE_MATHJAX is set to YES.
	1486
	1487	MATHJAX_FORMAT = HTML-CSS
	1488
	1489	# When MathJax is enabled you need to specify the location relative to the HTML
	1490	# output directory using the MATHJAX_RELPATH option. The destination directory
	1491	# should contain the MathJax.js script. For instance, if the mathjax directory
	1492	# is located at the same level as the HTML output directory, then
	1493	# MATHJAX_RELPATH should be ../mathjax. The default value points to the MathJax
	1494	# Content Delivery Network so you can quickly see the result without installing
	1495	# MathJax. However, it is strongly recommended to install a local copy of
	1496	# MathJax from http://www.mathjax.org before deployment.
	1497	# The default value is: http://cdn.mathjax.org/mathjax/latest.
	1498	# This tag requires that the tag USE_MATHJAX is set to YES.
	1499
	1500	MATHJAX_RELPATH = http://cdn.mathjax.org/mathjax/latest
	1501
	1502	# The MATHJAX_EXTENSIONS tag can be used to specify one or more MathJax
	1503	# extension names that should be enabled during MathJax rendering. For example
	1504	# MATHJAX_EXTENSIONS = TeX/AMSmath TeX/AMSsymbols
	1505	# This tag requires that the tag USE_MATHJAX is set to YES.
	1506
	1507	MATHJAX_EXTENSIONS =
	1508
	1509	# The MATHJAX_CODEFILE tag can be used to specify a file with javascript pieces
	1510	# of code that will be used on startup of the MathJax code. See the MathJax site
	1511	# (see: http://docs.mathjax.org/en/latest/output.html) for more details. For an
	1512	# example see the documentation.
	1513	# This tag requires that the tag USE_MATHJAX is set to YES.
	1514
	1515	MATHJAX_CODEFILE =
	1516
	1517	# When the SEARCHENGINE tag is enabled doxygen will generate a search box for
	1518	# the HTML output. The underlying search engine uses javascript and DHTML and
	1519	# should work on any modern browser. Note that when using HTML help
	1520	# (GENERATE_HTMLHELP), Qt help (GENERATE_QHP), or docsets (GENERATE_DOCSET)
	1521	# there is already a search function so this one should typically be disabled.
	1522	# For large projects the javascript based search engine can be slow, then
	1523	# enabling SERVER_BASED_SEARCH may provide a better solution. It is possible to
	1524	# search using the keyboard; to jump to the search box use <access key> + S
	1525	# (what the <access key> is depends on the OS and browser, but it is typically
	1526	# <CTRL>, <ALT>/<option>, or both). Inside the search box use the <cursor down
	1527	# key> to jump into the search results window, the results can be navigated
	1528	# using the <cursor keys>. Press <Enter> to select an item or <escape> to cancel
	1529	# the search. The filter options can be selected when the cursor is inside the
	1530	# search box by pressing <Shift>+<cursor down>. Also here use the <cursor keys>
	1531	# to select a filter and <Enter> or <escape> to activate or cancel the filter
	1532	# option.
	1533	# The default value is: YES.
	1534	# This tag requires that the tag GENERATE_HTML is set to YES.
	1535
	1536	SEARCHENGINE = NO
	1537
	1538	# When the SERVER_BASED_SEARCH tag is enabled the search engine will be
	1539	# implemented using a web server instead of a web client using Javascript. There
	1540	# are two flavors of web server based searching depending on the EXTERNAL_SEARCH
	1541	# setting. When disabled, doxygen will generate a PHP script for searching and
	1542	# an index file used by the script. When EXTERNAL_SEARCH is enabled the indexing
	1543	# and searching needs to be provided by external tools. See the section
	1544	# "External Indexing and Searching" for details.
	1545	# The default value is: NO.
	1546	# This tag requires that the tag SEARCHENGINE is set to YES.
	1547
	1548	SERVER_BASED_SEARCH = NO
	1549
	1550	# When EXTERNAL_SEARCH tag is enabled doxygen will no longer generate the PHP
	1551	# script for searching. Instead the search results are written to an XML file
	1552	# which needs to be processed by an external indexer. Doxygen will invoke an
	1553	# external search engine pointed to by the SEARCHENGINE_URL option to obtain the
	1554	# search results.
	1555	#
	1556	# Doxygen ships with an example indexer ( doxyindexer) and search engine
	1557	# (doxysearch.cgi) which are based on the open source search engine library
	1558	# Xapian (see: http://xapian.org/).
	1559	#
	1560	# See the section "External Indexing and Searching" for details.
	1561	# The default value is: NO.
	1562	# This tag requires that the tag SEARCHENGINE is set to YES.
	1563
	1564	EXTERNAL_SEARCH = NO
	1565
	1566	# The SEARCHENGINE_URL should point to a search engine hosted by a web server
	1567	# which will return the search results when EXTERNAL_SEARCH is enabled.
	1568	#
	1569	# Doxygen ships with an example indexer ( doxyindexer) and search engine
	1570	# (doxysearch.cgi) which are based on the open source search engine library
	1571	# Xapian (see: http://xapian.org/). See the section "External Indexing and
	1572	# Searching" for details.
	1573	# This tag requires that the tag SEARCHENGINE is set to YES.
	1574
	1575	SEARCHENGINE_URL =
	1576
	1577	# When SERVER_BASED_SEARCH and EXTERNAL_SEARCH are both enabled the unindexed
	1578	# search data is written to a file for indexing by an external tool. With the
	1579	# SEARCHDATA_FILE tag the name of this file can be specified.
	1580	# The default file is: searchdata.xml.
	1581	# This tag requires that the tag SEARCHENGINE is set to YES.
	1582
	1583	SEARCHDATA_FILE = searchdata.xml
	1584
	1585	# When SERVER_BASED_SEARCH and EXTERNAL_SEARCH are both enabled the
	1586	# EXTERNAL_SEARCH_ID tag can be used as an identifier for the project. This is
	1587	# useful in combination with EXTRA_SEARCH_MAPPINGS to search through multiple
	1588	# projects and redirect the results back to the right project.
	1589	# This tag requires that the tag SEARCHENGINE is set to YES.
	1590
	1591	EXTERNAL_SEARCH_ID =
	1592
	1593	# The EXTRA_SEARCH_MAPPINGS tag can be used to enable searching through doxygen
	1594	# projects other than the one defined by this configuration file, but that are
	1595	# all added to the same external search index. Each project needs to have a
	1596	# unique id set via EXTERNAL_SEARCH_ID. The search mapping then maps the id of
	1597	# to a relative location where the documentation can be found. The format is:
	1598	# EXTRA_SEARCH_MAPPINGS = tagname1=loc1 tagname2=loc2 ...
	1599	# This tag requires that the tag SEARCHENGINE is set to YES.
	1600
	1601	EXTRA_SEARCH_MAPPINGS =
	1602
	1603	#---------------------------------------------------------------------------
	1604	# Configuration options related to the LaTeX output
	1605	#---------------------------------------------------------------------------
	1606
	1607	# If the GENERATE_LATEX tag is set to YES doxygen will generate LaTeX output.
	1608	# The default value is: YES.
	1609
	1610	GENERATE_LATEX = NO
	1611
	1612	# The LATEX_OUTPUT tag is used to specify where the LaTeX docs will be put. If a
	1613	# relative path is entered the value of OUTPUT_DIRECTORY will be put in front of
	1614	# it.
	1615	# The default directory is: latex.
	1616	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1617
	1618	LATEX_OUTPUT = latex
	1619
	1620	# The LATEX_CMD_NAME tag can be used to specify the LaTeX command name to be
	1621	# invoked.
	1622	#
	1623	# Note that when enabling USE_PDFLATEX this option is only used for generating
	1624	# bitmaps for formulas in the HTML output, but not in the Makefile that is
	1625	# written to the output directory.
	1626	# The default file is: latex.
	1627	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1628
	1629	LATEX_CMD_NAME = latex
	1630
	1631	# The MAKEINDEX_CMD_NAME tag can be used to specify the command name to generate
	1632	# index for LaTeX.
	1633	# The default file is: makeindex.
	1634	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1635
	1636	MAKEINDEX_CMD_NAME = makeindex
	1637
	1638	# If the COMPACT_LATEX tag is set to YES doxygen generates more compact LaTeX
	1639	# documents. This may be useful for small projects and may help to save some
	1640	# trees in general.
	1641	# The default value is: NO.
	1642	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1643
	1644	COMPACT_LATEX = NO
	1645
	1646	# The PAPER_TYPE tag can be used to set the paper type that is used by the
	1647	# printer.
	1648	# Possible values are: a4 (210 x 297 mm), letter (8.5 x 11 inches), legal (8.5 x
	1649	# 14 inches) and executive (7.25 x 10.5 inches).
	1650	# The default value is: a4.
	1651	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1652
	1653	PAPER_TYPE = a4wide
	1654
	1655	# The EXTRA_PACKAGES tag can be used to specify one or more LaTeX package names
	1656	# that should be included in the LaTeX output. To get the times font for
	1657	# instance you can specify
	1658	# EXTRA_PACKAGES=times
	1659	# If left blank no extra packages will be included.
	1660	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1661
	1662	EXTRA_PACKAGES =
	1663
	1664	# The LATEX_HEADER tag can be used to specify a personal LaTeX header for the
	1665	# generated LaTeX document. The header should contain everything until the first
	1666	# chapter. If it is left blank doxygen will generate a standard header. See
	1667	# section "Doxygen usage" for information on how to let doxygen write the
	1668	# default header to a separate file.
	1669	#
	1670	# Note: Only use a user-defined header if you know what you are doing! The
	1671	# following commands have a special meaning inside the header: $title,
	1672	# $datetime, $date, $doxygenversion, $projectname, $projectnumber. Doxygen will
	1673	# replace them by respectively the title of the page, the current date and time,
	1674	# only the current date, the version number of doxygen, the project name (see
	1675	# PROJECT_NAME), or the project number (see PROJECT_NUMBER).
	1676	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1677
	1678	LATEX_HEADER =
	1679
	1680	# The LATEX_FOOTER tag can be used to specify a personal LaTeX footer for the
	1681	# generated LaTeX document. The footer should contain everything after the last
	1682	# chapter. If it is left blank doxygen will generate a standard footer.
	1683	#
	1684	# Note: Only use a user-defined footer if you know what you are doing!
	1685	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1686
	1687	LATEX_FOOTER =
	1688
	1689	# The LATEX_EXTRA_FILES tag can be used to specify one or more extra images or
	1690	# other source files which should be copied to the LATEX_OUTPUT output
	1691	# directory. Note that the files will be copied as-is; there are no commands or
	1692	# markers available.
	1693	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1694
	1695	LATEX_EXTRA_FILES =
	1696
	1697	# If the PDF_HYPERLINKS tag is set to YES, the LaTeX that is generated is
	1698	# prepared for conversion to PDF (using ps2pdf or pdflatex). The PDF file will
	1699	# contain links (just like the HTML output) instead of page references. This
	1700	# makes the output suitable for online browsing using a PDF viewer.
	1701	# The default value is: YES.
	1702	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1703
	1704	PDF_HYPERLINKS = NO
	1705
	1706	# If the LATEX_PDFLATEX tag is set to YES, doxygen will use pdflatex to generate
	1707	# the PDF file directly from the LaTeX files. Set this option to YES to get a
	1708	# higher quality PDF documentation.
	1709	# The default value is: YES.
	1710	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1711
	1712	USE_PDFLATEX = NO
	1713
	1714	# If the LATEX_BATCHMODE tag is set to YES, doxygen will add the \batchmode
	1715	# command to the generated LaTeX files. This will instruct LaTeX to keep running
	1716	# if errors occur, instead of asking the user for help. This option is also used
	1717	# when generating formulas in HTML.
	1718	# The default value is: NO.
	1719	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1720
	1721	LATEX_BATCHMODE = NO
	1722
	1723	# If the LATEX_HIDE_INDICES tag is set to YES then doxygen will not include the
	1724	# index chapters (such as File Index, Compound Index, etc.) in the output.
	1725	# The default value is: NO.
	1726	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1727
	1728	LATEX_HIDE_INDICES = NO
	1729
	1730	# If the LATEX_SOURCE_CODE tag is set to YES then doxygen will include source
	1731	# code with syntax highlighting in the LaTeX output.
	1732	#
	1733	# Note that which sources are shown also depends on other settings such as
	1734	# SOURCE_BROWSER.
	1735	# The default value is: NO.
	1736	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1737
	1738	LATEX_SOURCE_CODE = NO
	1739
	1740	# The LATEX_BIB_STYLE tag can be used to specify the style to use for the
	1741	# bibliography, e.g. plainnat, or ieeetr. See
	1742	# http://en.wikipedia.org/wiki/BibTeX and \cite for more info.
	1743	# The default value is: plain.
	1744	# This tag requires that the tag GENERATE_LATEX is set to YES.
	1745
	1746	LATEX_BIB_STYLE = plain
	1747
	1748	#---------------------------------------------------------------------------
	1749	# Configuration options related to the RTF output
	1750	#---------------------------------------------------------------------------
	1751
	1752	# If the GENERATE_RTF tag is set to YES doxygen will generate RTF output. The
	1753	# RTF output is optimized for Word 97 and may not look too pretty with other RTF
	1754	# readers/editors.
	1755	# The default value is: NO.
	1756
	1757	GENERATE_RTF = NO
	1758
	1759	# The RTF_OUTPUT tag is used to specify where the RTF docs will be put. If a
	1760	# relative path is entered the value of OUTPUT_DIRECTORY will be put in front of
	1761	# it.
	1762	# The default directory is: rtf.
	1763	# This tag requires that the tag GENERATE_RTF is set to YES.
	1764
	1765	RTF_OUTPUT = rtf
	1766
	1767	# If the COMPACT_RTF tag is set to YES doxygen generates more compact RTF
	1768	# documents. This may be useful for small projects and may help to save some
	1769	# trees in general.
	1770	# The default value is: NO.
	1771	# This tag requires that the tag GENERATE_RTF is set to YES.
	1772
	1773	COMPACT_RTF = NO
	1774
	1775	# If the RTF_HYPERLINKS tag is set to YES, the RTF that is generated will
	1776	# contain hyperlink fields. The RTF file will contain links (just like the HTML
	1777	# output) instead of page references. This makes the output suitable for online
	1778	# browsing using Word or some other Word compatible readers that support those
	1779	# fields.
	1780	#
	1781	# Note: WordPad (write) and others do not support links.
	1782	# The default value is: NO.
	1783	# This tag requires that the tag GENERATE_RTF is set to YES.
	1784
	1785	RTF_HYPERLINKS = NO
	1786
	1787	# Load stylesheet definitions from file. Syntax is similar to doxygen's config
	1788	# file, i.e. a series of assignments. You only have to provide replacements,
	1789	# missing definitions are set to their default value.
	1790	#
	1791	# See also section "Doxygen usage" for information on how to generate the
	1792	# default style sheet that doxygen normally uses.
	1793	# This tag requires that the tag GENERATE_RTF is set to YES.
	1794
	1795	RTF_STYLESHEET_FILE =
	1796
	1797	# Set optional variables used in the generation of an RTF document. Syntax is
	1798	# similar to doxygen's config file. A template extensions file can be generated
	1799	# using doxygen -e rtf extensionFile.
	1800	# This tag requires that the tag GENERATE_RTF is set to YES.
	1801
	1802	RTF_EXTENSIONS_FILE =
	1803
	1804	#---------------------------------------------------------------------------
	1805	# Configuration options related to the man page output
	1806	#---------------------------------------------------------------------------
	1807
	1808	# If the GENERATE_MAN tag is set to YES doxygen will generate man pages for
	1809	# classes and files.
	1810	# The default value is: NO.
	1811
	1812	GENERATE_MAN = NO
	1813
	1814	# The MAN_OUTPUT tag is used to specify where the man pages will be put. If a
	1815	# relative path is entered the value of OUTPUT_DIRECTORY will be put in front of
	1816	# it. A directory man3 will be created inside the directory specified by
	1817	# MAN_OUTPUT.
	1818	# The default directory is: man.
	1819	# This tag requires that the tag GENERATE_MAN is set to YES.
	1820
	1821	MAN_OUTPUT = man
	1822
	1823	# The MAN_EXTENSION tag determines the extension that is added to the generated
	1824	# man pages. In case the manual section does not start with a number, the number
	1825	# 3 is prepended. The dot (.) at the beginning of the MAN_EXTENSION tag is
	1826	# optional.
	1827	# The default value is: .3.
	1828	# This tag requires that the tag GENERATE_MAN is set to YES.
	1829
	1830	MAN_EXTENSION = .3
	1831
	1832	# The MAN_SUBDIR tag determines the name of the directory created within
	1833	# MAN_OUTPUT in which the man pages are placed. If defaults to man followed by
	1834	# MAN_EXTENSION with the initial . removed.
	1835	# This tag requires that the tag GENERATE_MAN is set to YES.
	1836
	1837	MAN_SUBDIR =
	1838
	1839	# If the MAN_LINKS tag is set to YES and doxygen generates man output, then it
	1840	# will generate one additional man file for each entity documented in the real
	1841	# man page(s). These additional files only source the real man page, but without
	1842	# them the man command would be unable to find the correct page.
	1843	# The default value is: NO.
	1844	# This tag requires that the tag GENERATE_MAN is set to YES.
	1845
	1846	MAN_LINKS = NO
	1847
	1848	#---------------------------------------------------------------------------
	1849	# Configuration options related to the XML output
	1850	#---------------------------------------------------------------------------
	1851
	1852	# If the GENERATE_XML tag is set to YES doxygen will generate an XML file that
	1853	# captures the structure of the code including all documentation.
	1854	# The default value is: NO.
	1855
	1856	GENERATE_XML = NO
	1857
	1858	# The XML_OUTPUT tag is used to specify where the XML pages will be put. If a
	1859	# relative path is entered the value of OUTPUT_DIRECTORY will be put in front of
	1860	# it.
	1861	# The default directory is: xml.
	1862	# This tag requires that the tag GENERATE_XML is set to YES.
	1863
	1864	XML_OUTPUT = xml
	1865
	1866	# If the XML_PROGRAMLISTING tag is set to YES doxygen will dump the program
	1867	# listings (including syntax highlighting and cross-referencing information) to
	1868	# the XML output. Note that enabling this will significantly increase the size
	1869	# of the XML output.
	1870	# The default value is: YES.
	1871	# This tag requires that the tag GENERATE_XML is set to YES.
	1872
	1873	XML_PROGRAMLISTING = YES
	1874
	1875	#---------------------------------------------------------------------------
	1876	# Configuration options related to the DOCBOOK output
	1877	#---------------------------------------------------------------------------
	1878
	1879	# If the GENERATE_DOCBOOK tag is set to YES doxygen will generate Docbook files
	1880	# that can be used to generate PDF.
	1881	# The default value is: NO.
	1882
	1883	GENERATE_DOCBOOK = NO
	1884
	1885	# The DOCBOOK_OUTPUT tag is used to specify where the Docbook pages will be put.
	1886	# If a relative path is entered the value of OUTPUT_DIRECTORY will be put in
	1887	# front of it.
	1888	# The default directory is: docbook.
	1889	# This tag requires that the tag GENERATE_DOCBOOK is set to YES.
	1890
	1891	DOCBOOK_OUTPUT = docbook
	1892
	1893	#---------------------------------------------------------------------------
	1894	# Configuration options for the AutoGen Definitions output
	1895	#---------------------------------------------------------------------------
	1896
	1897	# If the GENERATE_AUTOGEN_DEF tag is set to YES doxygen will generate an AutoGen
	1898	# Definitions (see http://autogen.sf.net) file that captures the structure of
	1899	# the code including all documentation. Note that this feature is still
	1900	# experimental and incomplete at the moment.
	1901	# The default value is: NO.
	1902
	1903	GENERATE_AUTOGEN_DEF = NO
	1904
	1905	#---------------------------------------------------------------------------
	1906	# Configuration options related to the Perl module output
	1907	#---------------------------------------------------------------------------
	1908
	1909	# If the GENERATE_PERLMOD tag is set to YES doxygen will generate a Perl module
	1910	# file that captures the structure of the code including all documentation.
	1911	#
	1912	# Note that this feature is still experimental and incomplete at the moment.
	1913	# The default value is: NO.
	1914
	1915	GENERATE_PERLMOD = NO
	1916
	1917	# If the PERLMOD_LATEX tag is set to YES doxygen will generate the necessary
	1918	# Makefile rules, Perl scripts and LaTeX code to be able to generate PDF and DVI
	1919	# output from the Perl module output.
	1920	# The default value is: NO.
	1921	# This tag requires that the tag GENERATE_PERLMOD is set to YES.
	1922
	1923	PERLMOD_LATEX = NO
	1924
	1925	# If the PERLMOD_PRETTY tag is set to YES the Perl module output will be nicely
	1926	# formatted so it can be parsed by a human reader. This is useful if you want to
	1927	# understand what is going on. On the other hand, if this tag is set to NO the
	1928	# size of the Perl module output will be much smaller and Perl will parse it
	1929	# just the same.
	1930	# The default value is: YES.
	1931	# This tag requires that the tag GENERATE_PERLMOD is set to YES.
	1932
	1933	PERLMOD_PRETTY = YES
	1934
	1935	# The names of the make variables in the generated doxyrules.make file are
	1936	# prefixed with the string contained in PERLMOD_MAKEVAR_PREFIX. This is useful
	1937	# so different doxyrules.make files included by the same Makefile don't
	1938	# overwrite each other's variables.
	1939	# This tag requires that the tag GENERATE_PERLMOD is set to YES.
	1940
	1941	PERLMOD_MAKEVAR_PREFIX =
	1942
	1943	#---------------------------------------------------------------------------
	1944	# Configuration options related to the preprocessor
	1945	#---------------------------------------------------------------------------
	1946
	1947	# If the ENABLE_PREPROCESSING tag is set to YES doxygen will evaluate all
	1948	# C-preprocessor directives found in the sources and include files.
	1949	# The default value is: YES.
	1950
	1951	ENABLE_PREPROCESSING = YES
	1952
	1953	# If the MACRO_EXPANSION tag is set to YES doxygen will expand all macro names
	1954	# in the source code. If set to NO only conditional compilation will be
	1955	# performed. Macro expansion can be done in a controlled way by setting
	1956	# EXPAND_ONLY_PREDEF to YES.
	1957	# The default value is: NO.
	1958	# This tag requires that the tag ENABLE_PREPROCESSING is set to YES.
	1959
	1960	MACRO_EXPANSION = YES
	1961
	1962	# If the EXPAND_ONLY_PREDEF and MACRO_EXPANSION tags are both set to YES then
	1963	# the macro expansion is limited to the macros specified with the PREDEFINED and
	1964	# EXPAND_AS_DEFINED tags.
	1965	# The default value is: NO.
	1966	# This tag requires that the tag ENABLE_PREPROCESSING is set to YES.
	1967
	1968	EXPAND_ONLY_PREDEF = YES
	1969
	1970	# If the SEARCH_INCLUDES tag is set to YES the includes files in the
	1971	# INCLUDE_PATH will be searched if a #include is found.
	1972	# The default value is: YES.
	1973	# This tag requires that the tag ENABLE_PREPROCESSING is set to YES.
	1974
	1975	SEARCH_INCLUDES = YES
	1976
	1977	# The INCLUDE_PATH tag can be used to specify one or more directories that
	1978	# contain include files that are not input files but should be processed by the
	1979	# preprocessor.
	1980	# This tag requires that the tag SEARCH_INCLUDES is set to YES.
	1981
	1982	INCLUDE_PATH =
	1983
	1984	# You can use the INCLUDE_FILE_PATTERNS tag to specify one or more wildcard
	1985	# patterns (like .h and .hpp) to filter out the header-files in the
	1986	# directories. If left blank, the patterns specified with FILE_PATTERNS will be
	1987	# used.
	1988	# This tag requires that the tag ENABLE_PREPROCESSING is set to YES.
	1989
	1990	INCLUDE_FILE_PATTERNS =
	1991
	1992	# The PREDEFINED tag can be used to specify one or more macro names that are
	1993	# defined before the preprocessor is started (similar to the -D option of e.g.
	1994	# gcc). The argument of the tag is a list of macros of the form: name or
	1995	# name=definition (no spaces). If the definition and the "=" are omitted, "=1"
	1996	# is assumed. To prevent a macro definition from being undefined via #undef or
	1997	# recursively expanded use the := operator instead of the = operator.
	1998	# This tag requires that the tag ENABLE_PREPROCESSING is set to YES.
	1999
	2000	PREDEFINED = ASSIMP_DOXYGEN_BUILD=1 \
	2001	__cplusplus
	2002
	2003	# If the MACRO_EXPANSION and EXPAND_ONLY_PREDEF tags are set to YES then this
	2004	# tag can be used to specify a list of macro names that should be expanded. The
	2005	# macro definition that is found in the sources will be used. Use the PREDEFINED
	2006	# tag if you want to use a different macro definition that overrules the
	2007	# definition found in the source code.
	2008	# This tag requires that the tag ENABLE_PREPROCESSING is set to YES.
	2009
	2010	EXPAND_AS_DEFINED = C_STRUCT \
	2011	C_ENUM
	2012
	2013	# If the SKIP_FUNCTION_MACROS tag is set to YES then doxygen's preprocessor will
	2014	# remove all references to function-like macros that are alone on a line, have
	2015	# an all uppercase name, and do not end with a semicolon. Such function macros
	2016	# are typically used for boiler-plate code, and will confuse the parser if not
	2017	# removed.
	2018	# The default value is: YES.
	2019	# This tag requires that the tag ENABLE_PREPROCESSING is set to YES.
	2020
	2021	SKIP_FUNCTION_MACROS = YES
	2022
	2023	#---------------------------------------------------------------------------
	2024	# Configuration options related to external references
	2025	#---------------------------------------------------------------------------
	2026
	2027	# The TAGFILES tag can be used to specify one or more tag files. For each tag
	2028	# file the location of the external documentation should be added. The format of
	2029	# a tag file without this location is as follows:
	2030	# TAGFILES = file1 file2 ...
	2031	# Adding location for the tag files is done as follows:
	2032	# TAGFILES = file1=loc1 "file2 = loc2" ...
	2033	# where loc1 and loc2 can be relative or absolute paths or URLs. See the
	2034	# section "Linking to external documentation" for more information about the use
	2035	# of tag files.
	2036	# Note: Each tag file must have a unique name (where the name does NOT include
	2037	# the path). If a tag file is not located in the directory in which doxygen is
	2038	# run, you must also specify the path to the tagfile here.
	2039
	2040	TAGFILES =
	2041
	2042	# When a file name is specified after GENERATE_TAGFILE, doxygen will create a
	2043	# tag file that is based on the input files it reads. See section "Linking to
	2044	# external documentation" for more information about the usage of tag files.
	2045
	2046	GENERATE_TAGFILE =
	2047
	2048	# If the ALLEXTERNALS tag is set to YES all external class will be listed in the
	2049	# class index. If set to NO only the inherited external classes will be listed.
	2050	# The default value is: NO.
	2051
	2052	ALLEXTERNALS = NO
	2053
	2054	# If the EXTERNAL_GROUPS tag is set to YES all external groups will be listed in
	2055	# the modules index. If set to NO, only the current project's groups will be
	2056	# listed.
	2057	# The default value is: YES.
	2058
	2059	EXTERNAL_GROUPS = YES
	2060
	2061	# If the EXTERNAL_PAGES tag is set to YES all external pages will be listed in
	2062	# the related pages index. If set to NO, only the current project's pages will
	2063	# be listed.
	2064	# The default value is: YES.
	2065
	2066	EXTERNAL_PAGES = YES
	2067
	2068	# The PERL_PATH should be the absolute path and name of the perl script
	2069	# interpreter (i.e. the result of 'which perl').
	2070	# The default file (with absolute path) is: /usr/bin/perl.
	2071
	2072	PERL_PATH = /usr/bin/perl
	2073
	2074	#---------------------------------------------------------------------------
	2075	# Configuration options related to the dot tool
	2076	#---------------------------------------------------------------------------
	2077
	2078	# If the CLASS_DIAGRAMS tag is set to YES doxygen will generate a class diagram
	2079	# (in HTML and LaTeX) for classes with base or super classes. Setting the tag to
	2080	# NO turns the diagrams off. Note that this option also works with HAVE_DOT
	2081	# disabled, but it is recommended to install and use dot, since it yields more
	2082	# powerful graphs.
	2083	# The default value is: YES.
	2084
	2085	CLASS_DIAGRAMS = NO
	2086
	2087	# You can define message sequence charts within doxygen comments using the \msc
	2088	# command. Doxygen will then run the mscgen tool (see:
	2089	# http://www.mcternan.me.uk/mscgen/)) to produce the chart and insert it in the
	2090	# documentation. The MSCGEN_PATH tag allows you to specify the directory where
	2091	# the mscgen tool resides. If left empty the tool is assumed to be found in the
	2092	# default search path.
	2093
	2094	MSCGEN_PATH =
	2095
	2096	# You can include diagrams made with dia in doxygen documentation. Doxygen will
	2097	# then run dia to produce the diagram and insert it in the documentation. The
	2098	# DIA_PATH tag allows you to specify the directory where the dia binary resides.
	2099	# If left empty dia is assumed to be found in the default search path.
	2100
	2101	DIA_PATH =
	2102
	2103	# If set to YES, the inheritance and collaboration graphs will hide inheritance
	2104	# and usage relations if the target is undocumented or is not a class.
	2105	# The default value is: YES.
	2106
	2107	HIDE_UNDOC_RELATIONS = YES
	2108
	2109	# If you set the HAVE_DOT tag to YES then doxygen will assume the dot tool is
	2110	# available from the path. This tool is part of Graphviz (see:
	2111	# http://www.graphviz.org/), a graph visualization toolkit from AT&T and Lucent
	2112	# Bell Labs. The other options in this section have no effect if this option is
	2113	# set to NO
	2114	# The default value is: NO.
	2115
	2116	HAVE_DOT = NO
	2117
	2118	# The DOT_NUM_THREADS specifies the number of dot invocations doxygen is allowed
	2119	# to run in parallel. When set to 0 doxygen will base this on the number of
	2120	# processors available in the system. You can set it explicitly to a value
	2121	# larger than 0 to get control over the balance between CPU load and processing
	2122	# speed.
	2123	# Minimum value: 0, maximum value: 32, default value: 0.
	2124	# This tag requires that the tag HAVE_DOT is set to YES.
	2125
	2126	DOT_NUM_THREADS = 0
	2127
	2128	# When you want a differently looking font n the dot files that doxygen
	2129	# generates you can specify the font name using DOT_FONTNAME. You need to make
	2130	# sure dot is able to find the font, which can be done by putting it in a
	2131	# standard location or by setting the DOTFONTPATH environment variable or by
	2132	# setting DOT_FONTPATH to the directory containing the font.
	2133	# The default value is: Helvetica.
	2134	# This tag requires that the tag HAVE_DOT is set to YES.
	2135
	2136	DOT_FONTNAME = FreeSans
	2137
	2138	# The DOT_FONTSIZE tag can be used to set the size (in points) of the font of
	2139	# dot graphs.
	2140	# Minimum value: 4, maximum value: 24, default value: 10.
	2141	# This tag requires that the tag HAVE_DOT is set to YES.
	2142
	2143	DOT_FONTSIZE = 10
	2144
	2145	# By default doxygen will tell dot to use the default font as specified with
	2146	# DOT_FONTNAME. If you specify a different font using DOT_FONTNAME you can set
	2147	# the path where dot can find it using this tag.
	2148	# This tag requires that the tag HAVE_DOT is set to YES.
	2149
	2150	DOT_FONTPATH =
	2151
	2152	# If the CLASS_GRAPH tag is set to YES then doxygen will generate a graph for
	2153	# each documented class showing the direct and indirect inheritance relations.
	2154	# Setting this tag to YES will force the CLASS_DIAGRAMS tag to NO.
	2155	# The default value is: YES.
	2156	# This tag requires that the tag HAVE_DOT is set to YES.
	2157
	2158	CLASS_GRAPH = YES
	2159
	2160	# If the COLLABORATION_GRAPH tag is set to YES then doxygen will generate a
	2161	# graph for each documented class showing the direct and indirect implementation
	2162	# dependencies (inheritance, containment, and class references variables) of the
	2163	# class with other documented classes.
	2164	# The default value is: YES.
	2165	# This tag requires that the tag HAVE_DOT is set to YES.
	2166
	2167	COLLABORATION_GRAPH = YES
	2168
	2169	# If the GROUP_GRAPHS tag is set to YES then doxygen will generate a graph for
	2170	# groups, showing the direct groups dependencies.
	2171	# The default value is: YES.
	2172	# This tag requires that the tag HAVE_DOT is set to YES.
	2173
	2174	GROUP_GRAPHS = YES
	2175
	2176	# If the UML_LOOK tag is set to YES doxygen will generate inheritance and
	2177	# collaboration diagrams in a style similar to the OMG's Unified Modeling
	2178	# Language.
	2179	# The default value is: NO.
	2180	# This tag requires that the tag HAVE_DOT is set to YES.
	2181
	2182	UML_LOOK = NO
	2183
	2184	# If the UML_LOOK tag is enabled, the fields and methods are shown inside the
	2185	# class node. If there are many fields or methods and many nodes the graph may
	2186	# become too big to be useful. The UML_LIMIT_NUM_FIELDS threshold limits the
	2187	# number of items for each type to make the size more manageable. Set this to 0
	2188	# for no limit. Note that the threshold may be exceeded by 50% before the limit
	2189	# is enforced. So when you set the threshold to 10, up to 15 fields may appear,
	2190	# but if the number exceeds 15, the total amount of fields shown is limited to
	2191	# 10.
	2192	# Minimum value: 0, maximum value: 100, default value: 10.
	2193	# This tag requires that the tag HAVE_DOT is set to YES.
	2194
	2195	UML_LIMIT_NUM_FIELDS = 10
	2196
	2197	# If the TEMPLATE_RELATIONS tag is set to YES then the inheritance and
	2198	# collaboration graphs will show the relations between templates and their
	2199	# instances.
	2200	# The default value is: NO.
	2201	# This tag requires that the tag HAVE_DOT is set to YES.
	2202
	2203	TEMPLATE_RELATIONS = NO
	2204
	2205	# If the INCLUDE_GRAPH, ENABLE_PREPROCESSING and SEARCH_INCLUDES tags are set to
	2206	# YES then doxygen will generate a graph for each documented file showing the
	2207	# direct and indirect include dependencies of the file with other documented
	2208	# files.
	2209	# The default value is: YES.
	2210	# This tag requires that the tag HAVE_DOT is set to YES.
	2211
	2212	INCLUDE_GRAPH = YES
	2213
	2214	# If the INCLUDED_BY_GRAPH, ENABLE_PREPROCESSING and SEARCH_INCLUDES tags are
	2215	# set to YES then doxygen will generate a graph for each documented file showing
	2216	# the direct and indirect include dependencies of the file with other documented
	2217	# files.
	2218	# The default value is: YES.
	2219	# This tag requires that the tag HAVE_DOT is set to YES.
	2220
	2221	INCLUDED_BY_GRAPH = YES
	2222
	2223	# If the CALL_GRAPH tag is set to YES then doxygen will generate a call
	2224	# dependency graph for every global function or class method.
	2225	#
	2226	# Note that enabling this option will significantly increase the time of a run.
	2227	# So in most cases it will be better to enable call graphs for selected
	2228	# functions only using the \callgraph command.
	2229	# The default value is: NO.
	2230	# This tag requires that the tag HAVE_DOT is set to YES.
	2231
	2232	CALL_GRAPH = NO
	2233
	2234	# If the CALLER_GRAPH tag is set to YES then doxygen will generate a caller
	2235	# dependency graph for every global function or class method.
	2236	#
	2237	# Note that enabling this option will significantly increase the time of a run.
	2238	# So in most cases it will be better to enable caller graphs for selected
	2239	# functions only using the \callergraph command.
	2240	# The default value is: NO.
	2241	# This tag requires that the tag HAVE_DOT is set to YES.
	2242
	2243	CALLER_GRAPH = NO
	2244
	2245	# If the GRAPHICAL_HIERARCHY tag is set to YES then doxygen will graphical
	2246	# hierarchy of all classes instead of a textual one.
	2247	# The default value is: YES.
	2248	# This tag requires that the tag HAVE_DOT is set to YES.
	2249
	2250	GRAPHICAL_HIERARCHY = YES
	2251
	2252	# If the DIRECTORY_GRAPH tag is set to YES then doxygen will show the
	2253	# dependencies a directory has on other directories in a graphical way. The
	2254	# dependency relations are determined by the #include relations between the
	2255	# files in the directories.
	2256	# The default value is: YES.
	2257	# This tag requires that the tag HAVE_DOT is set to YES.
	2258
	2259	DIRECTORY_GRAPH = YES
	2260
	2261	# The DOT_IMAGE_FORMAT tag can be used to set the image format of the images
	2262	# generated by dot.
	2263	# Note: If you choose svg you need to set HTML_FILE_EXTENSION to xhtml in order
	2264	# to make the SVG files visible in IE 9+ (other browsers do not have this
	2265	# requirement).
	2266	# Possible values are: png, jpg, gif and svg.
	2267	# The default value is: png.
	2268	# This tag requires that the tag HAVE_DOT is set to YES.
	2269
	2270	DOT_IMAGE_FORMAT = png
	2271
	2272	# If DOT_IMAGE_FORMAT is set to svg, then this option can be set to YES to
	2273	# enable generation of interactive SVG images that allow zooming and panning.
	2274	#
	2275	# Note that this requires a modern browser other than Internet Explorer. Tested
	2276	# and working are Firefox, Chrome, Safari, and Opera.
	2277	# Note: For IE 9+ you need to set HTML_FILE_EXTENSION to xhtml in order to make
	2278	# the SVG files visible. Older versions of IE do not have SVG support.
	2279	# The default value is: NO.
	2280	# This tag requires that the tag HAVE_DOT is set to YES.
	2281
	2282	INTERACTIVE_SVG = NO
	2283
	2284	# The DOT_PATH tag can be used to specify the path where the dot tool can be
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+14

-1

doc/dox.h less more

190	190	http://www.boost-consulting.com/products/free</a>. Choose the appropriate version of boost for your runtime of choice.
191	191
192	192	<b>If you don't want to use boost</b>, you can build against our <i>"Boost-Workaround"</i>. It consists of very small
193		implementations of the various boost utility classes used. However, you'll loose functionality (e.g. threading) by doing this.
	193	implementations of the various boost utility classes used. However, you'll lose functionality (e.g. threading) by doing this.
194	194	So, if you can use boost, you should use boost. Otherwise, See the @link use_noboost NoBoost-Section @endlink
195	195	later on this page for the details of the workaround.
196	196

1420	1420	- The implementation knows only about IFC2X3 and applies this rule set to all models it encounters,
1421	1421	regardless of their actual version. Loading of older or newer files may fail with parsing errors.
1422	1422
	1423	@subsection ifc_metadata Metadata
	1424
	1425	IFC file properties (IfcPropertySet) are kept as per-node metadata, see aiNode::mMetaData.
	1426
1423	1427	<hr>
1424	1428	@section ogre Ogre
1425	1429	ATTENTION: The Ogre-Loader is currently under development, many things have changed after this documentation was written, but they are not final enough to rewrite the documentation. So things may have changed by now!

1689	1693
1690	1694	@endcode
1691	1695	*/
	1696
	1697
	1698	/**
	1699	@page AnimationOverview Animation Overview
	1700	\section Transformations
	1701	This diagram shows how you can calculate your transformationmatrices for an animated character:
	1702	<img src="AnimationOverview.png" />
	1703
	1704	**/⏎

-445

~~doc/style.css~~ less more

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372		/*
373		The following two styles can be used to replace the root node title
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377		*/
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379		/*
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441		address {
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+729

-0

include/assimp/Compiler/pstdint.h less more

	0	/* A portable stdint.h
	1	****************************************************************************
	2	* BSD License:
	3	****************************************************************************
	4	*
	5	* Copyright (c) 2005-2007 Paul Hsieh
	6	* All rights reserved.
	7	*
	8	* Redistribution and use in source and binary forms, with or without
	9	* modification, are permitted provided that the following conditions
	10	* are met:
	11	*
	12	* 1. Redistributions of source code must retain the above copyright
	13	* notice, this list of conditions and the following disclaimer.
	14	* 2. Redistributions in binary form must reproduce the above copyright
	15	* notice, this list of conditions and the following disclaimer in the
	16	* documentation and/or other materials provided with the distribution.
	17	* 3. The name of the author may not be used to endorse or promote products
	18	* derived from this software without specific prior written permission.
	19	*
	20	* THIS SOFTWARE IS PROVIDED BY THE AUTHOR ``AS IS'' AND ANY EXPRESS OR
	21	* IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO, THE IMPLIED WARRANTIES
	22	* OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR PURPOSE ARE DISCLAIMED.
	23	* IN NO EVENT SHALL THE AUTHOR BE LIABLE FOR ANY DIRECT, INDIRECT,
	24	* INCIDENTAL, SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT
	25	* NOT LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	26	* DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	27	* THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	28	* (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF
	29	* THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	30	*
	31	****************************************************************************
	32	*
	33	* Version 0.1.10
	34	*
	35	* The ANSI C standard committee, for the C99 standard, specified the
	36	* inclusion of a new standard include file called stdint.h. This is
	37	* a very useful and long desired include file which contains several
	38	* very precise definitions for integer scalar types that is
	39	* critically important for making portable several classes of
	40	* applications including cryptography, hashing, variable length
	41	* integer libraries and so on. But for most developers its likely
	42	* useful just for programming sanity.
	43	*
	44	* The problem is that most compiler vendors have decided not to
	45	* implement the C99 standard, and the next C++ language standard
	46	* (which has a lot more mindshare these days) will be a long time in
	47	* coming and its unknown whether or not it will include stdint.h or
	48	* how much adoption it will have. Either way, it will be a long time
	49	* before all compilers come with a stdint.h and it also does nothing
	50	* for the extremely large number of compilers available today which
	51	* do not include this file, or anything comparable to it.
	52	*
	53	* So that's what this file is all about. Its an attempt to build a
	54	* single universal include file that works on as many platforms as
	55	* possible to deliver what stdint.h is supposed to. A few things
	56	* that should be noted about this file:
	57	*
	58	* 1) It is not guaranteed to be portable and/or present an identical
	59	* interface on all platforms. The extreme variability of the
	60	* ANSI C standard makes this an impossibility right from the
	61	* very get go. Its really only meant to be useful for the vast
	62	* majority of platforms that possess the capability of
	63	* implementing usefully and precisely defined, standard sized
	64	* integer scalars. Systems which are not intrinsically 2s
	65	* complement may produce invalid constants.
	66	*
	67	* 2) There is an unavoidable use of non-reserved symbols.
	68	*
	69	* 3) Other standard include files are invoked.
	70	*
	71	* 4) This file may come in conflict with future platforms that do
	72	* include stdint.h. The hope is that one or the other can be
	73	* used with no real difference.
	74	*
	75	* 5) In the current verison, if your platform can't represent
	76	* int32_t, int16_t and int8_t, it just dumps out with a compiler
	77	* error.
	78	*
	79	* 6) 64 bit integers may or may not be defined. Test for their
	80	* presence with the test: #ifdef INT64_MAX or #ifdef UINT64_MAX.
	81	* Note that this is different from the C99 specification which
	82	* requires the existence of 64 bit support in the compiler. If
	83	* this is not defined for your platform, yet it is capable of
	84	* dealing with 64 bits then it is because this file has not yet
	85	* been extended to cover all of your system's capabilities.
	86	*
	87	* 7) (u)intptr_t may or may not be defined. Test for its presence
	88	* with the test: #ifdef PTRDIFF_MAX. If this is not defined
	89	* for your platform, then it is because this file has not yet
	90	* been extended to cover all of your system's capabilities, not
	91	* because its optional.
	92	*
	93	* 8) The following might not been defined even if your platform is
	94	* capable of defining it:
	95	*
	96	* WCHAR_MIN
	97	* WCHAR_MAX
	98	* (u)int64_t
	99	* PTRDIFF_MIN
	100	* PTRDIFF_MAX
	101	* (u)intptr_t
	102	*
	103	* 9) The following have not been defined:
	104	*
	105	* WINT_MIN
	106	* WINT_MAX
	107	*
	108	* 10) The criteria for defining (u)int_least(*)_t isn't clear,
	109	* except for systems which don't have a type that precisely
	110	* defined 8, 16, or 32 bit types (which this include file does
	111	* not support anyways). Default definitions have been given.
	112	*
	113	* 11) The criteria for defining (u)int_fast(*)_t isn't something I
	114	* would trust to any particular compiler vendor or the ANSI C
	115	* committee. It is well known that "compatible systems" are
	116	* commonly created that have very different performance
	117	* characteristics from the systems they are compatible with,
	118	* especially those whose vendors make both the compiler and the
	119	* system. Default definitions have been given, but its strongly
	120	* recommended that users never use these definitions for any
	121	* reason (they do NOT deliver any serious guarantee of
	122	* improved performance -- not in this file, nor any vendor's
	123	* stdint.h).
	124	*
	125	* 12) The following macros:
	126	*
	127	* PRINTF_INTMAX_MODIFIER
	128	* PRINTF_INT64_MODIFIER
	129	* PRINTF_INT32_MODIFIER
	130	* PRINTF_INT16_MODIFIER
	131	* PRINTF_LEAST64_MODIFIER
	132	* PRINTF_LEAST32_MODIFIER
	133	* PRINTF_LEAST16_MODIFIER
	134	* PRINTF_INTPTR_MODIFIER
	135	*
	136	* are strings which have been defined as the modifiers required
	137	* for the "d", "u" and "x" printf formats to correctly output
	138	* (u)intmax_t, (u)int64_t, (u)int32_t, (u)int16_t, (u)least64_t,
	139	* (u)least32_t, (u)least16_t and (u)intptr_t types respectively.
	140	* PRINTF_INTPTR_MODIFIER is not defined for some systems which
	141	* provide their own stdint.h. PRINTF_INT64_MODIFIER is not
	142	* defined if INT64_MAX is not defined. These are an extension
	143	* beyond what C99 specifies must be in stdint.h.
	144	*
	145	* In addition, the following macros are defined:
	146	*
	147	* PRINTF_INTMAX_HEX_WIDTH
	148	* PRINTF_INT64_HEX_WIDTH
	149	* PRINTF_INT32_HEX_WIDTH
	150	* PRINTF_INT16_HEX_WIDTH
	151	* PRINTF_INT8_HEX_WIDTH
	152	* PRINTF_INTMAX_DEC_WIDTH
	153	* PRINTF_INT64_DEC_WIDTH
	154	* PRINTF_INT32_DEC_WIDTH
	155	* PRINTF_INT16_DEC_WIDTH
	156	* PRINTF_INT8_DEC_WIDTH
	157	*
	158	* Which specifies the maximum number of characters required to
	159	* print the number of that type in either hexadecimal or decimal.
	160	* These are an extension beyond what C99 specifies must be in
	161	* stdint.h.
	162	*
	163	* Compilers tested (all with 0 warnings at their highest respective
	164	* settings): Borland Turbo C 2.0, WATCOM C/C++ 11.0 (16 bits and 32
	165	* bits), Microsoft Visual C++ 6.0 (32 bit), Microsoft Visual Studio
	166	* .net (VC7), Intel C++ 4.0, GNU gcc v3.3.3
	167	*
	168	* This file should be considered a work in progress. Suggestions for
	169	* improvements, especially those which increase coverage are strongly
	170	* encouraged.
	171	*
	172	* Acknowledgements
	173	*
	174	* The following people have made significant contributions to the
	175	* development and testing of this file:
	176	*
	177	* Chris Howie
	178	* John Steele Scott
	179	* Dave Thorup
	180	*
	181	*/
	182
	183	#include <stddef.h>
	184	#include <limits.h>
	185	#include <signal.h>
	186
	187	/*
	188	* For gcc with _STDINT_H, fill in the PRINTF_INT*_MODIFIER macros, and
	189	* do nothing else. On the Mac OS X version of gcc this is _STDINT_H_.
	190	*/
	191
	192	#if ((defined(__STDC__) && __STDC__ && __STDC_VERSION__ >= 199901L) \|\| (defined (__WATCOMC__) && (defined (_STDINT_H_INCLUDED) \|\| __WATCOMC__ >= 1250)) \|\| (defined(__GNUC__) && (defined(_STDINT_H) \|\| defined(_STDINT_H_)))) && !defined (_PSTDINT_H_INCLUDED) && !defined(_STDINT)
	193	#include <stdint.h>
	194	#define _PSTDINT_H_INCLUDED
	195	# ifndef PRINTF_INT64_MODIFIER
	196	# define PRINTF_INT64_MODIFIER "ll"
	197	# endif
	198	# ifndef PRINTF_INT32_MODIFIER
	199	# define PRINTF_INT32_MODIFIER "l"
	200	# endif
	201	# ifndef PRINTF_INT16_MODIFIER
	202	# define PRINTF_INT16_MODIFIER "h"
	203	# endif
	204	# ifndef PRINTF_INTMAX_MODIFIER
	205	# define PRINTF_INTMAX_MODIFIER PRINTF_INT64_MODIFIER
	206	# endif
	207	# ifndef PRINTF_INT64_HEX_WIDTH
	208	# define PRINTF_INT64_HEX_WIDTH "16"
	209	# endif
	210	# ifndef PRINTF_INT32_HEX_WIDTH
	211	# define PRINTF_INT32_HEX_WIDTH "8"
	212	# endif
	213	# ifndef PRINTF_INT16_HEX_WIDTH
	214	# define PRINTF_INT16_HEX_WIDTH "4"
	215	# endif
	216	# ifndef PRINTF_INT8_HEX_WIDTH
	217	# define PRINTF_INT8_HEX_WIDTH "2"
	218	# endif
	219	# ifndef PRINTF_INT64_DEC_WIDTH
	220	# define PRINTF_INT64_DEC_WIDTH "20"
	221	# endif
	222	# ifndef PRINTF_INT32_DEC_WIDTH
	223	# define PRINTF_INT32_DEC_WIDTH "10"
	224	# endif
	225	# ifndef PRINTF_INT16_DEC_WIDTH
	226	# define PRINTF_INT16_DEC_WIDTH "5"
	227	# endif
	228	# ifndef PRINTF_INT8_DEC_WIDTH
	229	# define PRINTF_INT8_DEC_WIDTH "3"
	230	# endif
	231	# ifndef PRINTF_INTMAX_HEX_WIDTH
	232	# define PRINTF_INTMAX_HEX_WIDTH PRINTF_INT64_HEX_WIDTH
	233	# endif
	234	# ifndef PRINTF_INTMAX_DEC_WIDTH
	235	# define PRINTF_INTMAX_DEC_WIDTH PRINTF_INT64_DEC_WIDTH
	236	# endif
	237
	238	/*
	239	* Something really weird is going on with Open Watcom. Just pull some of
	240	* these duplicated definitions from Open Watcom's stdint.h file for now.
	241	*/
	242
	243	# if defined (__WATCOMC__) && __WATCOMC__ >= 1250
	244	# if !defined (INT64_C)
	245	# define INT64_C(x) (x + (INT64_MAX - INT64_MAX))
	246	# endif
	247	# if !defined (UINT64_C)
	248	# define UINT64_C(x) (x + (UINT64_MAX - UINT64_MAX))
	249	# endif
	250	# if !defined (INT32_C)
	251	# define INT32_C(x) (x + (INT32_MAX - INT32_MAX))
	252	# endif
	253	# if !defined (UINT32_C)
	254	# define UINT32_C(x) (x + (UINT32_MAX - UINT32_MAX))
	255	# endif
	256	# if !defined (INT16_C)
	257	# define INT16_C(x) (x)
	258	# endif
	259	# if !defined (UINT16_C)
	260	# define UINT16_C(x) (x)
	261	# endif
	262	# if !defined (INT8_C)
	263	# define INT8_C(x) (x)
	264	# endif
	265	# if !defined (UINT8_C)
	266	# define UINT8_C(x) (x)
	267	# endif
	268	# if !defined (UINT64_MAX)
	269	# define UINT64_MAX 18446744073709551615ULL
	270	# endif
	271	# if !defined (INT64_MAX)
	272	# define INT64_MAX 9223372036854775807LL
	273	# endif
	274	# if !defined (UINT32_MAX)
	275	# define UINT32_MAX 4294967295UL
	276	# endif
	277	# if !defined (INT32_MAX)
	278	# define INT32_MAX 2147483647L
	279	# endif
	280	# if !defined (INTMAX_MAX)
	281	# define INTMAX_MAX INT64_MAX
	282	# endif
	283	# if !defined (INTMAX_MIN)
	284	# define INTMAX_MIN INT64_MIN
	285	# endif
	286	# endif
	287	#endif
	288
	289	#ifndef _PSTDINT_H_INCLUDED
	290	#define _PSTDINT_H_INCLUDED
	291
	292	#ifndef SIZE_MAX
	293	# define SIZE_MAX (~(size_t)0)
	294	#endif
	295
	296	/*
	297	* Deduce the type assignments from limits.h under the assumption that
	298	* integer sizes in bits are powers of 2, and follow the ANSI
	299	* definitions.
	300	*/
	301
	302	#ifndef UINT8_MAX
	303	# define UINT8_MAX 0xff
	304	#endif
	305	#ifndef uint8_t
	306	# if (UCHAR_MAX == UINT8_MAX) \|\| defined (S_SPLINT_S)
	307	typedef unsigned char uint8_t;
	308	# define UINT8_C(v) ((uint8_t) v)
	309	# else
	310	# error "Platform not supported"
	311	# endif
	312	#endif
	313
	314	#ifndef INT8_MAX
	315	# define INT8_MAX 0x7f
	316	#endif
	317	#ifndef INT8_MIN
	318	# define INT8_MIN INT8_C(0x80)
	319	#endif
	320	#ifndef int8_t
	321	# if (SCHAR_MAX == INT8_MAX) \|\| defined (S_SPLINT_S)
	322	typedef signed char int8_t;
	323	# define INT8_C(v) ((int8_t) v)
	324	# else
	325	# error "Platform not supported"
	326	# endif
	327	#endif
	328
	329	#ifndef UINT16_MAX
	330	# define UINT16_MAX 0xffff
	331	#endif
	332	#ifndef uint16_t
	333	#if (UINT_MAX == UINT16_MAX) \|\| defined (S_SPLINT_S)
	334	typedef unsigned int uint16_t;
	335	# ifndef PRINTF_INT16_MODIFIER
	336	# define PRINTF_INT16_MODIFIER ""
	337	# endif
	338	# define UINT16_C(v) ((uint16_t) (v))
	339	#elif (USHRT_MAX == UINT16_MAX)
	340	typedef unsigned short uint16_t;
	341	# define UINT16_C(v) ((uint16_t) (v))
	342	# ifndef PRINTF_INT16_MODIFIER
	343	# define PRINTF_INT16_MODIFIER "h"
	344	# endif
	345	#else
	346	#error "Platform not supported"
	347	#endif
	348	#endif
	349
	350	#ifndef INT16_MAX
	351	# define INT16_MAX 0x7fff
	352	#endif
	353	#ifndef INT16_MIN
	354	# define INT16_MIN INT16_C(0x8000)
	355	#endif
	356	#ifndef int16_t
	357	#if (INT_MAX == INT16_MAX) \|\| defined (S_SPLINT_S)
	358	typedef signed int int16_t;
	359	# define INT16_C(v) ((int16_t) (v))
	360	# ifndef PRINTF_INT16_MODIFIER
	361	# define PRINTF_INT16_MODIFIER ""
	362	# endif
	363	#elif (SHRT_MAX == INT16_MAX)
	364	typedef signed short int16_t;
	365	# define INT16_C(v) ((int16_t) (v))
	366	# ifndef PRINTF_INT16_MODIFIER
	367	# define PRINTF_INT16_MODIFIER "h"
	368	# endif
	369	#else
	370	#error "Platform not supported"
	371	#endif
	372	#endif
	373
	374	#ifndef UINT32_MAX
	375	# define UINT32_MAX (0xffffffffUL)
	376	#endif
	377	#ifndef uint32_t
	378	#if (ULONG_MAX == UINT32_MAX) \|\| defined (S_SPLINT_S)
	379	typedef unsigned long uint32_t;
	380	# define UINT32_C(v) v ## UL
	381	# ifndef PRINTF_INT32_MODIFIER
	382	# define PRINTF_INT32_MODIFIER "l"
	383	# endif
	384	#elif (UINT_MAX == UINT32_MAX)
	385	typedef unsigned int uint32_t;
	386	# ifndef PRINTF_INT32_MODIFIER
	387	# define PRINTF_INT32_MODIFIER ""
	388	# endif
	389	# define UINT32_C(v) v ## U
	390	#elif (USHRT_MAX == UINT32_MAX)
	391	typedef unsigned short uint32_t;
	392	# define UINT32_C(v) ((unsigned short) (v))
	393	# ifndef PRINTF_INT32_MODIFIER
	394	# define PRINTF_INT32_MODIFIER ""
	395	# endif
	396	#else
	397	#error "Platform not supported"
	398	#endif
	399	#endif
	400
	401	#ifndef INT32_MAX
	402	# define INT32_MAX (0x7fffffffL)
	403	#endif
	404	#ifndef INT32_MIN
	405	# define INT32_MIN INT32_C(0x80000000)
	406	#endif
	407	#ifndef int32_t
	408	#if (LONG_MAX == INT32_MAX) \|\| defined (S_SPLINT_S)
	409	typedef signed long int32_t;
	410	# define INT32_C(v) v ## L
	411	# ifndef PRINTF_INT32_MODIFIER
	412	# define PRINTF_INT32_MODIFIER "l"
	413	# endif
	414	#elif (INT_MAX == INT32_MAX)
	415	typedef signed int int32_t;
	416	# define INT32_C(v) v
	417	# ifndef PRINTF_INT32_MODIFIER
	418	# define PRINTF_INT32_MODIFIER ""
	419	# endif
	420	#elif (SHRT_MAX == INT32_MAX)
	421	typedef signed short int32_t;
	422	# define INT32_C(v) ((short) (v))
	423	# ifndef PRINTF_INT32_MODIFIER
	424	# define PRINTF_INT32_MODIFIER ""
	425	# endif
	426	#else
	427	#error "Platform not supported"
	428	#endif
	429	#endif
	430
	431	/*
	432	* The macro stdint_int64_defined is temporarily used to record
	433	* whether or not 64 integer support is available. It must be
	434	* defined for any 64 integer extensions for new platforms that are
	435	* added.
	436	*/
	437
	438	#undef stdint_int64_defined
	439	#if (defined(__STDC__) && defined(__STDC_VERSION__)) \|\| defined (S_SPLINT_S)
	440	# if (__STDC__ && __STDC_VERSION >= 199901L) \|\| defined (S_SPLINT_S)
	441	# define stdint_int64_defined
	442	typedef long long int64_t;
	443	typedef unsigned long long uint64_t;
	444	# define UINT64_C(v) v ## ULL
	445	# define INT64_C(v) v ## LL
	446	# ifndef PRINTF_INT64_MODIFIER
	447	# define PRINTF_INT64_MODIFIER "ll"
	448	# endif
	449	# endif
	450	#endif
	451
	452	#if !defined (stdint_int64_defined)
	453	# if defined(__GNUC__)
	454	# define stdint_int64_defined
	455	__extension__ typedef long long int64_t;
	456	__extension__ typedef unsigned long long uint64_t;
	457	# define UINT64_C(v) v ## ULL
	458	# define INT64_C(v) v ## LL
	459	# ifndef PRINTF_INT64_MODIFIER
	460	# define PRINTF_INT64_MODIFIER "ll"
	461	# endif
	462	# elif defined(__MWERKS__) \|\| defined (__SUNPRO_C) \|\| defined (__SUNPRO_CC) \|\| defined (__APPLE_CC__) \|\| defined (_LONG_LONG) \|\| defined (_CRAYC) \|\| defined (S_SPLINT_S)
	463	# define stdint_int64_defined
	464	typedef long long int64_t;
	465	typedef unsigned long long uint64_t;
	466	# define UINT64_C(v) v ## ULL
	467	# define INT64_C(v) v ## LL
	468	# ifndef PRINTF_INT64_MODIFIER
	469	# define PRINTF_INT64_MODIFIER "ll"
	470	# endif
	471	# elif (defined(__WATCOMC__) && defined(__WATCOM_INT64__)) \|\| (defined(_MSC_VER) && _INTEGRAL_MAX_BITS >= 64) \|\| (defined (__BORLANDC__) && __BORLANDC__ > 0x460) \|\| defined (__alpha) \|\| defined (__DECC)
	472	# define stdint_int64_defined
	473	typedef __int64 int64_t;
	474	typedef unsigned __int64 uint64_t;
	475	# define UINT64_C(v) v ## UI64
	476	# define INT64_C(v) v ## I64
	477	# ifndef PRINTF_INT64_MODIFIER
	478	# define PRINTF_INT64_MODIFIER "I64"
	479	# endif
	480	# endif
	481	#endif
	482
	483	#if !defined (LONG_LONG_MAX) && defined (INT64_C)
	484	# define LONG_LONG_MAX INT64_C (9223372036854775807)
	485	#endif
	486	#ifndef ULONG_LONG_MAX
	487	# define ULONG_LONG_MAX UINT64_C (18446744073709551615)
	488	#endif
	489
	490	#if !defined (INT64_MAX) && defined (INT64_C)
	491	# define INT64_MAX INT64_C (9223372036854775807)
	492	#endif
	493	#if !defined (INT64_MIN) && defined (INT64_C)
	494	# define INT64_MIN INT64_C (-9223372036854775808)
	495	#endif
	496	#if !defined (UINT64_MAX) && defined (INT64_C)
	497	# define UINT64_MAX UINT64_C (18446744073709551615)
	498	#endif
	499
	500	/*
	501	* Width of hexadecimal for number field.
	502	*/
	503
	504	#ifndef PRINTF_INT64_HEX_WIDTH
	505	# define PRINTF_INT64_HEX_WIDTH "16"
	506	#endif
	507	#ifndef PRINTF_INT32_HEX_WIDTH
	508	# define PRINTF_INT32_HEX_WIDTH "8"
	509	#endif
	510	#ifndef PRINTF_INT16_HEX_WIDTH
	511	# define PRINTF_INT16_HEX_WIDTH "4"
	512	#endif
	513	#ifndef PRINTF_INT8_HEX_WIDTH
	514	# define PRINTF_INT8_HEX_WIDTH "2"
	515	#endif
	516
	517	#ifndef PRINTF_INT64_DEC_WIDTH
	518	# define PRINTF_INT64_DEC_WIDTH "20"
	519	#endif
	520	#ifndef PRINTF_INT32_DEC_WIDTH
	521	# define PRINTF_INT32_DEC_WIDTH "10"
	522	#endif
	523	#ifndef PRINTF_INT16_DEC_WIDTH
	524	# define PRINTF_INT16_DEC_WIDTH "5"
	525	#endif
	526	#ifndef PRINTF_INT8_DEC_WIDTH
	527	# define PRINTF_INT8_DEC_WIDTH "3"
	528	#endif
	529
	530	/*
	531	* Ok, lets not worry about 128 bit integers for now. Moore's law says
	532	* we don't need to worry about that until about 2040 at which point
	533	* we'll have bigger things to worry about.
	534	*/
	535
	536	#ifdef stdint_int64_defined
	537	typedef int64_t intmax_t;
	538	typedef uint64_t uintmax_t;
	539	# define INTMAX_MAX INT64_MAX
	540	# define INTMAX_MIN INT64_MIN
	541	# define UINTMAX_MAX UINT64_MAX
	542	# define UINTMAX_C(v) UINT64_C(v)
	543	# define INTMAX_C(v) INT64_C(v)
	544	# ifndef PRINTF_INTMAX_MODIFIER
	545	# define PRINTF_INTMAX_MODIFIER PRINTF_INT64_MODIFIER
	546	# endif
	547	# ifndef PRINTF_INTMAX_HEX_WIDTH
	548	# define PRINTF_INTMAX_HEX_WIDTH PRINTF_INT64_HEX_WIDTH
	549	# endif
	550	# ifndef PRINTF_INTMAX_DEC_WIDTH
	551	# define PRINTF_INTMAX_DEC_WIDTH PRINTF_INT64_DEC_WIDTH
	552	# endif
	553	#else
	554	typedef int32_t intmax_t;
	555	typedef uint32_t uintmax_t;
	556	# define INTMAX_MAX INT32_MAX
	557	# define UINTMAX_MAX UINT32_MAX
	558	# define UINTMAX_C(v) UINT32_C(v)
	559	# define INTMAX_C(v) INT32_C(v)
	560	# ifndef PRINTF_INTMAX_MODIFIER
	561	# define PRINTF_INTMAX_MODIFIER PRINTF_INT32_MODIFIER
	562	# endif
	563	# ifndef PRINTF_INTMAX_HEX_WIDTH
	564	# define PRINTF_INTMAX_HEX_WIDTH PRINTF_INT32_HEX_WIDTH
	565	# endif
	566	# ifndef PRINTF_INTMAX_DEC_WIDTH
	567	# define PRINTF_INTMAX_DEC_WIDTH PRINTF_INT32_DEC_WIDTH
	568	# endif
	569	#endif
	570
	571	/*
	572	* Because this file currently only supports platforms which have
	573	* precise powers of 2 as bit sizes for the default integers, the
	574	* least definitions are all trivial. Its possible that a future
	575	* version of this file could have different definitions.
	576	*/
	577
	578	#ifndef stdint_least_defined
	579	typedef int8_t int_least8_t;
	580	typedef uint8_t uint_least8_t;
	581	typedef int16_t int_least16_t;
	582	typedef uint16_t uint_least16_t;
	583	typedef int32_t int_least32_t;
	584	typedef uint32_t uint_least32_t;
	585	# define PRINTF_LEAST32_MODIFIER PRINTF_INT32_MODIFIER
	586	# define PRINTF_LEAST16_MODIFIER PRINTF_INT16_MODIFIER
	587	# define UINT_LEAST8_MAX UINT8_MAX
	588	# define INT_LEAST8_MAX INT8_MAX
	589	# define UINT_LEAST16_MAX UINT16_MAX
	590	# define INT_LEAST16_MAX INT16_MAX
	591	# define UINT_LEAST32_MAX UINT32_MAX
	592	# define INT_LEAST32_MAX INT32_MAX
	593	# define INT_LEAST8_MIN INT8_MIN
	594	# define INT_LEAST16_MIN INT16_MIN
	595	# define INT_LEAST32_MIN INT32_MIN
	596	# ifdef stdint_int64_defined
	597	typedef int64_t int_least64_t;
	598	typedef uint64_t uint_least64_t;
	599	# define PRINTF_LEAST64_MODIFIER PRINTF_INT64_MODIFIER
	600	# define UINT_LEAST64_MAX UINT64_MAX
	601	# define INT_LEAST64_MAX INT64_MAX
	602	# define INT_LEAST64_MIN INT64_MIN
	603	# endif
	604	#endif
	605	#undef stdint_least_defined
	606
	607	/*
	608	* The ANSI C committee pretending to know or specify anything about
	609	* performance is the epitome of misguided arrogance. The mandate of
	610	* this file is to ONLY ever support that absolute minimum
	611	* definition of the fast integer types, for compatibility purposes.
	612	* No extensions, and no attempt to suggest what may or may not be a
	613	* faster integer type will ever be made in this file. Developers are
	614	* warned to stay away from these types when using this or any other
	615	* stdint.h.
	616	*/
	617
	618	typedef int_least8_t int_fast8_t;
	619	typedef uint_least8_t uint_fast8_t;
	620	typedef int_least16_t int_fast16_t;
	621	typedef uint_least16_t uint_fast16_t;
	622	typedef int_least32_t int_fast32_t;
	623	typedef uint_least32_t uint_fast32_t;
	624	#define UINT_FAST8_MAX UINT_LEAST8_MAX
	625	#define INT_FAST8_MAX INT_LEAST8_MAX
	626	#define UINT_FAST16_MAX UINT_LEAST16_MAX
	627	#define INT_FAST16_MAX INT_LEAST16_MAX
	628	#define UINT_FAST32_MAX UINT_LEAST32_MAX
	629	#define INT_FAST32_MAX INT_LEAST32_MAX
	630	#define INT_FAST8_MIN INT_LEAST8_MIN
	631	#define INT_FAST16_MIN INT_LEAST16_MIN
	632	#define INT_FAST32_MIN INT_LEAST32_MIN
	633	#ifdef stdint_int64_defined
	634	typedef int_least64_t int_fast64_t;
	635	typedef uint_least64_t uint_fast64_t;
	636	# define UINT_FAST64_MAX UINT_LEAST64_MAX
	637	# define INT_FAST64_MAX INT_LEAST64_MAX
	638	# define INT_FAST64_MIN INT_LEAST64_MIN
	639	#endif
	640
	641	#undef stdint_int64_defined
	642
	643	/*
	644	* Whatever piecemeal, per compiler thing we can do about the wchar_t
	645	* type limits.
	646	*/
	647
	648	#if defined(__WATCOMC__) \|\| defined(_MSC_VER) \|\| defined (__GNUC__)
	649	# include <wchar.h>
	650	# ifndef WCHAR_MIN
	651	# define WCHAR_MIN 0
	652	# endif
	653	# ifndef WCHAR_MAX
	654	# define WCHAR_MAX ((wchar_t)-1)
	655	# endif
	656	#endif
	657
	658	/*
	659	* Whatever piecemeal, per compiler/platform thing we can do about the
	660	* (u)intptr_t types and limits.
	661	*/
	662
	663	#if defined (_MSC_VER) && defined (_UINTPTR_T_DEFINED)
	664	# define STDINT_H_UINTPTR_T_DEFINED
	665	#endif
	666
	667	#ifndef STDINT_H_UINTPTR_T_DEFINED
	668	# if defined (__alpha__) \|\| defined (__ia64__) \|\| defined (__x86_64__) \|\| defined (_WIN64)
	669	# define stdint_intptr_bits 64
	670	# elif defined (__WATCOMC__) \|\| defined (__TURBOC__)
	671	# if defined(__TINY__) \|\| defined(__SMALL__) \|\| defined(__MEDIUM__)
	672	# define stdint_intptr_bits 16
	673	# else
	674	# define stdint_intptr_bits 32
	675	# endif
	676	# elif defined (__i386__) \|\| defined (_WIN32) \|\| defined (WIN32)
	677	# define stdint_intptr_bits 32
	678	# elif defined (__INTEL_COMPILER)
	679	/* TODO -- what will Intel do about x86-64? */
	680	# endif
	681
	682	# ifdef stdint_intptr_bits
	683	# define stdint_intptr_glue3_i(a,b,c) a##b##c
	684	# define stdint_intptr_glue3(a,b,c) stdint_intptr_glue3_i(a,b,c)
	685	# ifndef PRINTF_INTPTR_MODIFIER
	686	# define PRINTF_INTPTR_MODIFIER stdint_intptr_glue3(PRINTF_INT,stdint_intptr_bits,_MODIFIER)
	687	# endif
	688	# ifndef PTRDIFF_MAX
	689	# define PTRDIFF_MAX stdint_intptr_glue3(INT,stdint_intptr_bits,_MAX)
	690	# endif
	691	# ifndef PTRDIFF_MIN
	692	# define PTRDIFF_MIN stdint_intptr_glue3(INT,stdint_intptr_bits,_MIN)
	693	# endif
	694	# ifndef UINTPTR_MAX
	695	# define UINTPTR_MAX stdint_intptr_glue3(UINT,stdint_intptr_bits,_MAX)
	696	# endif
	697	# ifndef INTPTR_MAX
	698	# define INTPTR_MAX stdint_intptr_glue3(INT,stdint_intptr_bits,_MAX)
	699	# endif
	700	# ifndef INTPTR_MIN
	701	# define INTPTR_MIN stdint_intptr_glue3(INT,stdint_intptr_bits,_MIN)
	702	# endif
	703	# ifndef INTPTR_C
	704	# define INTPTR_C(x) stdint_intptr_glue3(INT,stdint_intptr_bits,_C)(x)
	705	# endif
	706	# ifndef UINTPTR_C
	707	# define UINTPTR_C(x) stdint_intptr_glue3(UINT,stdint_intptr_bits,_C)(x)
	708	# endif
	709	typedef stdint_intptr_glue3(uint,stdint_intptr_bits,_t) uintptr_t;
	710	typedef stdint_intptr_glue3( int,stdint_intptr_bits,_t) intptr_t;
	711	# else
	712	/* TODO -- This following is likely wrong for some platforms, and does
	713	nothing for the definition of uintptr_t. */
	714	typedef ptrdiff_t intptr_t;
	715	# endif
	716	# define STDINT_H_UINTPTR_T_DEFINED
	717	#endif
	718
	719	/*
	720	* Assumes sig_atomic_t is signed and we have a 2s complement machine.
	721	*/
	722
	723	#ifndef SIG_ATOMIC_MAX
	724	# define SIG_ATOMIC_MAX ((((sig_atomic_t) 1) << (sizeof (sig_atomic_t)*CHAR_BIT-1)) - 1)
	725	#endif
	726
	727	#endif
	728

-1

include/assimp/Compiler/pushpack1.h less more

7	7	// MSVC 7,8,9
8	8	// GCC
9	9	// BORLAND (complains about 'pack state changed but not reverted', but works)
	10	// Clang
10	11	//
11	12	//
12	13	// USAGE:

24	25	# pragma pack(push,1)
25	26	# define PACK_STRUCT
26	27	#elif defined( __GNUC__ )
27		# define PACK_STRUCT __attribute__((packed))
	28	# if defined(__clang__)
	29	# define PACK_STRUCT __attribute__((__packed__))
	30	# else
	31	# define PACK_STRUCT __attribute__((gcc_struct, __packed__))
	32	# endif
28	33	#else
29	34	# error Compiler not supported
30	35	#endif

+14

-3

include/assimp/Exporter.hpp less more

50	50
51	51	namespace Assimp {
52	52	class ExporterPimpl;
	53	class IOSystem;
53	54
54	55
55	56	// ----------------------------------------------------------------------------------

166	167	* @return the exported data or NULL in case of error.
167	168	* @note If the Exporter instance did already hold a blob from
168	169	* a previous call to #ExportToBlob, it will be disposed.
169		* Any IO handlers set via #SetIOHandler are ignored here.*/
	170	* Any IO handlers set via #SetIOHandler are ignored here.
	171	* @note Use aiCopyScene() to get a modifiable copy of a previously
	172	* imported scene. */
170	173	const aiExportDataBlob* ExportToBlob( const aiScene* pScene, const char* pFormatId, unsigned int pPreprocessing = 0u );
171	174	inline const aiExportDataBlob* ExportToBlob( const aiScene* pScene, const std::string& pFormatId, unsigned int pPreprocessing = 0u );
172	175

194	197	* redundant as exporters would apply them anyhow. A good example
195	198	* is triangulation - whilst you can enforce it by specifying
196	199	* the #aiProcess_Triangulate flag, most export formats support only
197		* triangulate data so they would run the step even if it wasn't requested.
198		* @return AI_SUCCESS if everything was fine. */
	200	* triangulate data so they would run the step even if it wasn't requested.
	201	*
	202	* If assimp detects that the input scene was directly taken from the importer side of
	203	* the library (i.e. not copied using aiCopyScene and potetially modified afterwards),
	204	* any postprocessing steps already applied to the scene will not be applied again, unless
	205	* they show non-idempotent behaviour (#aiProcess_MakeLeftHanded, #aiProcess_FlipUVs and
	206	* #aiProcess_FlipWindingOrder).
	207	* @return AI_SUCCESS if everything was fine.
	208	* @note Use aiCopyScene() to get a modifiable copy of a previously
	209	* imported scene.*/
199	210	aiReturn Export( const aiScene* pScene, const char* pFormatId, const char* pPath, unsigned int pPreprocessing = 0u);
200	211	inline aiReturn Export( const aiScene* pScene, const std::string& pFormatId, const std::string& pPath, unsigned int pPreprocessing = 0u);
201	212

-1

include/assimp/IOStream.hpp less more

60	60	* to the Importer. If you implement this interface, be sure to also provide an
61	61	* implementation for IOSystem that creates instances of your custom IO class.
62	62	*/
63		class ASSIMP_API IOStream : public Intern::AllocateFromAssimpHeap
	63	class ASSIMP_API IOStream
	64	#ifndef SWIG
	65	: public Intern::AllocateFromAssimpHeap
	66	#endif
64	67	{
65	68	protected:
66	69	/** Constructor protected, use IOSystem::Open() to create an instance. */

-1

include/assimp/IOSystem.hpp less more

63	63	* supply a custom implementation for IOStream.
64	64	*
65	65	* @see Importer::SetIOHandler() */
66		class ASSIMP_API IOSystem : public Intern::AllocateFromAssimpHeap
	66	class ASSIMP_API IOSystem
	67	#ifndef SWIG
	68	: public Intern::AllocateFromAssimpHeap
	69	#endif
67	70	{
68	71	public:
69	72

+22

-5

include/assimp/Importer.hpp less more

230	230	bool* bWasExisting = NULL);
231	231
232	232	// -------------------------------------------------------------------
	233	/** Set a matrix configuration property.
	234	* @see SetPropertyInteger()
	235	*/
	236	void SetPropertyMatrix(const char* szName, const aiMatrix4x4& sValue,
	237	bool* bWasExisting = NULL);
	238
	239	// -------------------------------------------------------------------
233	240	/** Get a configuration property.
234	241	* @param szName Name of the property. All supported properties
235	242	* are defined in the aiConfig.g header (all constants share the

269	276	* The return value remains valid until the property is modified.
270	277	* @see GetPropertyInteger()
271	278	*/
272		const std::string& GetPropertyString(const char* szName,
	279	const std::string GetPropertyString(const char* szName,
273	280	const std::string& sErrorReturn = "") const;
	281
	282	// -------------------------------------------------------------------
	283	/** Get a matrix configuration property
	284	*
	285	* The return value remains valid until the property is modified.
	286	* @see GetPropertyInteger()
	287	*/
	288	const aiMatrix4x4 GetPropertyMatrix(const char* szName,
	289	const aiMatrix4x4& sErrorReturn = aiMatrix4x4()) const;
274	290
275	291	// -------------------------------------------------------------------
276	292	/** Supplies a custom IO handler to the importer to use to open and

408	424	* instance. Use GetOrphanedScene() to take ownership of it.
409	425	*
410	426	* @note This is a straightforward way to decode models from memory
411		* buffers, but it doesn't handle model formats spreading their
	427	* buffers, but it doesn't handle model formats that spread their
412	428	* data across multiple files or even directories. Examples include
413		* OBJ or MD3, which outsource parts of their material stuff into
414		* external scripts. If you need the full functionality, provide
415		* a custom IOSystem to make Assimp find these files.
	429	* OBJ or MD3, which outsource parts of their material info into
	430	* external scripts. If you need full functionality, provide
	431	* a custom IOSystem to make Assimp find these files and use
	432	* the regular ReadFile() API.
416	433	*/
417	434	const aiScene* ReadFileFromMemory(
418	435	const void* pBuffer,

-2

include/assimp/LogStream.hpp less more

52	52	* Several default implementations are provided, see #aiDefaultLogStream for more
53	53	* details. Writing your own implementation of LogStream is just necessary if these
54	54	* are not enough for your purpose. */
55		class ASSIMP_API LogStream
56		: public Intern::AllocateFromAssimpHeap {
	55	class ASSIMP_API LogStream
	56	#ifndef SWIG
	57	: public Intern::AllocateFromAssimpHeap
	58	#endif
	59	{
57	60	protected:
58	61	/** @brief Default constructor */
59	62	LogStream() {

-2

include/assimp/Logger.hpp less more

55	55	* Assimp provides a default implementation and uses it for almost all
56	56	* logging stuff ('DefaultLogger'). This class defines just basic logging
57	57	* behaviour and is not of interest for you. Instead, take a look at #DefaultLogger. */
58		class ASSIMP_API Logger
59		: public Intern::AllocateFromAssimpHeap {
	58	class ASSIMP_API Logger
	59	#ifndef SWIG
	60	: public Intern::AllocateFromAssimpHeap
	61	#endif
	62	{
60	63	public:
61	64
62	65	// ----------------------------------------------------------------------

-2

include/assimp/ProgressHandler.hpp less more

50	50	*
51	51	* Each #Importer instance maintains its own #ProgressHandler. The default
52	52	* implementation provided by Assimp doesn't do anything at all. */
53		class ASSIMP_API ProgressHandler
54		: public Intern::AllocateFromAssimpHeap {
	53	class ASSIMP_API ProgressHandler
	54	#ifndef SWIG
	55	: public Intern::AllocateFromAssimpHeap
	56	#endif
	57	{
55	58	protected:
56	59	/** @brief Default constructor */
57	60	ProgressHandler () {

-1

include/assimp/ai_assert.h less more

2	2	#ifndef AI_DEBUG_H_INC
3	3	#define AI_DEBUG_H_INC
4	4
5		#ifdef _DEBUG
	5	#ifdef ASSIMP_BUILD_DEBUG
6	6	# include <assert.h>
7	7	# define ai_assert(expression) assert(expression)
8	8	#else

-3

include/assimp/anim.h less more

207	207	/** This value is not used, it is just here to force the
208	208	* the compiler to map this enum to a 32 Bit integer */
209	209	#ifndef SWIG
210		_aiAnimBehaviour_Force32Bit = 0x8fffffff
	210	_aiAnimBehaviour_Force32Bit = INT_MAX
211	211	#endif
212	212	};
213	213

456	456
457	457	template <>
458	458	struct Interpolator <aiQuatKey> {
459		void operator () (aiQuaternion& out, const aiQuatKey a,
	459	void operator () (aiQuaternion& out, const aiQuatKey& a,
460	460	const aiQuatKey& b, float d) const
461	461	{
462	462	Interpolator<aiQuaternion> ipl;

466	466
467	467	template <>
468	468	struct Interpolator <aiMeshKey> {
469		void operator () (unsigned int& out, const aiMeshKey a,
	469	void operator () (unsigned int& out, const aiMeshKey& a,
470	470	const aiMeshKey& b, float d) const
471	471	{
472	472	Interpolator<unsigned int> ipl;

+22

-6

include/assimp/cexport.h less more

94	94
95	95
96	96	// --------------------------------------------------------------------------------
97		/** Create a modifyable copy of a scene.
	97	/** Create a modifiable copy of a scene.
98	98	* This is useful to import files via Assimp, change their topology and
99	99	* export them again. Since the scene returned by the various importer functions
100		* is const, a modifyable copy is needed.
	100	* is const, a modifiable copy is needed.
101	101	* @param pIn Valid scene to be copied
102		* @param pOut Receives a modifyable copy of the scene.
	102	* @param pOut Receives a modifyable copy of the scene. Use aiFreeScene() to
	103	* delete it again.
103	104	*/
104	105	ASSIMP_API void aiCopyScene(const C_STRUCT aiScene* pIn,
105	106	C_STRUCT aiScene** pOut);
	107
	108
	109	// --------------------------------------------------------------------------------
	110	/** Frees a scene copy created using aiCopyScene() */
	111	ASSIMP_API void aiFreeScene(const C_STRUCT aiScene* pIn);
106	112
107	113	// --------------------------------------------------------------------------------
108	114	/** Exports the given scene to a chosen file format and writes the result file(s) to disk.

136	142	* is triangulation - whilst you can enforce it by specifying
137	143	* the #aiProcess_Triangulate flag, most export formats support only
138	144	* triangulate data so they would run the step anyway.
	145	*
	146	* If assimp detects that the input scene was directly taken from the importer side of
	147	* the library (i.e. not copied using aiCopyScene and potetially modified afterwards),
	148	* any postprocessing steps already applied to the scene will not be applied again, unless
	149	* they show non-idempotent behaviour (#aiProcess_MakeLeftHanded, #aiProcess_FlipUVs and
	150	* #aiProcess_FlipWindingOrder).
139	151	* @return a status code indicating the result of the export
	152	* @note Use aiCopyScene() to get a modifiable copy of a previously
	153	* imported scene.
140	154	*/
141	155	ASSIMP_API aiReturn aiExportScene( const C_STRUCT aiScene* pScene,
142	156	const char* pFormatId,

156	170	* @param pPreprocessing Please see the documentation for #aiExportScene
157	171	* @return a status code indicating the result of the export
158	172	* @note Include <aiFileIO.h> for the definition of #aiFileIO.
	173	* @note Use aiCopyScene() to get a modifiable copy of a previously
	174	* imported scene.
159	175	*/
160	176	ASSIMP_API aiReturn aiExportSceneEx( const C_STRUCT aiScene* pScene,
161	177	const char* pFormatId,

194	210	extension that should be used when writing
195	211	the data to disc.
196	212	*/
197		aiString name;
	213	C_STRUCT aiString name;
198	214
199	215	/** Pointer to the next blob in the chain or NULL if there is none. */
200		aiExportDataBlob * next;
	216	C_STRUCT aiExportDataBlob * next;
201	217
202	218	#ifdef __cplusplus
203	219	/// Default constructor

230	246	* returned by aiExportScene().
231	247	* @param pData the data blob returned by #aiExportSceneToBlob
232	248	*/
233		ASSIMP_API C_STRUCT void aiReleaseExportBlob( const C_STRUCT aiExportDataBlob* pData );
	249	ASSIMP_API void aiReleaseExportBlob( const C_STRUCT aiExportDataBlob* pData );
234	250
235	251	#ifdef __cplusplus
236	252	}

+25

-5

include/assimp/cimport.h less more

78	78	* @see aiSetPropertyInteger
79	79	* @see aiSetPropertyFloat
80	80	* @see aiSetPropertyString
	81	* @see aiSetPropertyMatrix
81	82	*/
82	83	// --------------------------------------------------------------------------------
83	84	struct aiPropertyStore { char sentinel; };

169	170	* Check the return value, and you'll know ...
170	171	* @return A pointer to the imported data, NULL if the import failed.
171	172	*
172		* @note This is a straightforward way to decode models from memory buffers, but it
173		* doesn't handle model formats spreading their data across multiple files or even
174		* directories. Examples include OBJ or MD3, which outsource parts of their material
175		* stuff into external scripts. If you need the full functionality, provide a custom
176		* IOSystem to make Assimp find these files.
	173	* @note This is a straightforward way to decode models from memory
	174	* buffers, but it doesn't handle model formats that spread their
	175	* data across multiple files or even directories. Examples include
	176	* OBJ or MD3, which outsource parts of their material info into
	177	* external scripts. If you need full functionality, provide
	178	* a custom IOSystem to make Assimp find these files and use
	179	* the regular aiImportFileEx()/aiImportFileExWithProperties() API.
177	180	*/
178	181	ASSIMP_API const C_STRUCT aiScene* aiImportFileFromMemory(
179	182	const char* pBuffer,

395	398	const C_STRUCT aiString* st);
396	399
397	400	// --------------------------------------------------------------------------------
	401	/** Set a matrix property.
	402	*
	403	* This is the C-version of #Assimp::Importer::SetPropertyMatrix(). In the C
	404	* interface, properties are always shared by all imports. It is not possible to
	405	* specify them per import.
	406	*
	407	* @param property store to modify. Use #aiCreatePropertyStore to obtain a store.
	408	* @param szName Name of the configuration property to be set. All supported
	409	* public properties are defined in the config.h header file (#AI_CONFIG_XXX).
	410	* @param value New value for the property
	411	*/
	412	ASSIMP_API void aiSetImportPropertyMatrix(
	413	C_STRUCT aiPropertyStore* store,
	414	const char* szName,
	415	const C_STRUCT aiMatrix4x4* mat);
	416
	417	// --------------------------------------------------------------------------------
398	418	/** Construct a quaternion from a 3x3 rotation matrix.
399	419	* @param quat Receives the output quaternion.
400	420	* @param mat Matrix to 'quaternionize'.

-0

include/assimp/color4.h less more

73	73	// comparison
74	74	bool operator == (const aiColor4t& other) const;
75	75	bool operator != (const aiColor4t& other) const;
	76	bool operator < (const aiColor4t& other) const;
76	77
77	78	// color tuple access, rgba order
78	79	inline TReal operator[](unsigned int i) const;

+17

-0

include/assimp/color4.inl less more

93	93	}
94	94	// ------------------------------------------------------------------------------------------------
95	95	template <typename TReal>
	96	AI_FORCE_INLINE bool aiColor4t<TReal>::operator< (const aiColor4t<TReal>& other) const {
	97	return r < other.r \|\| (
	98	r == other.r && (
	99	g < other.g \|\| (
	100	g == other.g && (
	101	b < other.b \|\| (
	102	b == other.b && (
	103	a < other.a
	104	)
	105	)
	106	)
	107	)
	108	)
	109	);
	110	}
	111	// ------------------------------------------------------------------------------------------------
	112	template <typename TReal>
96	113	AI_FORCE_INLINE aiColor4t<TReal> operator + (const aiColor4t<TReal>& v1, const aiColor4t<TReal>& v2) {
97	114	return aiColor4t<TReal>( v1.r + v2.r, v1.g + v2.g, v1.b + v2.b, v1.a + v2.a);
98	115	}

+159

-24

include/assimp/config.h less more

76	76	#define AI_CONFIG_GLOB_MEASURE_TIME \
77	77	"GLOB_MEASURE_TIME"
78	78
	79
	80	// ---------------------------------------------------------------------------
	81	/** @brief Global setting to disable generation of skeleton dummy meshes
	82	*
	83	* Skeleton dummy meshes are generated as a visualization aid in cases which
	84	* the input data contains no geometry, but only animation data.
	85	* Property data type: bool. Default value: false
	86	*/
	87	// ---------------------------------------------------------------------------
	88	#define AI_CONFIG_IMPORT_NO_SKELETON_MESHES \
	89	"IMPORT_NO_SKELETON_MESHES"
	90
	91
	92
79	93	# if 0 // not implemented yet
80	94	// ---------------------------------------------------------------------------
81	95	/** @brief Set Assimp's multithreading policy.

156	170	*/
157	171	#define AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE \
158	172	"PP_GSN_MAX_SMOOTHING_ANGLE"
	173
159	174
160	175	// ---------------------------------------------------------------------------
161	176	/** @brief Sets the colormap (= palette) to be used to decode embedded

218	233	"PP_PTV_NORMALIZE"
219	234
220	235	// ---------------------------------------------------------------------------
	236	/** @brief Configures the #aiProcess_PretransformVertices step to use
	237	* a users defined matrix as the scene root node transformation before
	238	* transforming vertices.
	239	* Property type: bool. Default value: false.
	240	*/
	241	#define AI_CONFIG_PP_PTV_ADD_ROOT_TRANSFORMATION \
	242	"PP_PTV_ADD_ROOT_TRANSFORMATION"
	243
	244	// ---------------------------------------------------------------------------
	245	/** @brief Configures the #aiProcess_PretransformVertices step to use
	246	* a users defined matrix as the scene root node transformation before
	247	* transforming vertices. This property correspond to the 'a1' component
	248	* of the transformation matrix.
	249	* Property type: aiMatrix4x4.
	250	*/
	251	#define AI_CONFIG_PP_PTV_ROOT_TRANSFORMATION \
	252	"PP_PTV_ROOT_TRANSFORMATION"
	253
	254	// ---------------------------------------------------------------------------
221	255	/** @brief Configures the #aiProcess_FindDegenerates step to
222	256	* remove degenerated primitives from the import - immediately.
223	257	*

387	421	* use the #aiProcess_OptimizeGraph step to do this */
388	422	aiComponent_LIGHTS = 0x100,
389	423
390		/** Removes all light sources (aiScene::mCameras).
	424	/** Removes all cameras (aiScene::mCameras).
391	425	* The corresponding scenegraph nodes are NOT removed.
392	426	* use the #aiProcess_OptimizeGraph step to do this */
393	427	aiComponent_CAMERAS = 0x200,

493	527	// IMPORTER SETTINGS
494	528	// Various stuff to fine-tune the behaviour of specific importer plugins.
495	529	// ###########################################################################
	530
	531
	532	// ---------------------------------------------------------------------------
	533	/** @brief Set whether the fbx importer will merge all geometry layers present
	534	* in the source file or take only the first.
	535	*
	536	* The default value is true (1)
	537	* Property type: bool
	538	*/
	539	#define AI_CONFIG_IMPORT_FBX_READ_ALL_GEOMETRY_LAYERS \
	540	"IMPORT_FBX_READ_ALL_GEOMETRY_LAYERS"
	541
	542	// ---------------------------------------------------------------------------
	543	/** @brief Set whether the fbx importer will read all materials present in the
	544	* source file or take only the referenced materials.
	545	*
	546	* This is void unless IMPORT_FBX_READ_MATERIALS=1.
	547	*
	548	* The default value is false (0)
	549	* Property type: bool
	550	*/
	551	#define AI_CONFIG_IMPORT_FBX_READ_ALL_MATERIALS \
	552	"IMPORT_FBX_READ_ALL_MATERIALS"
	553
	554	// ---------------------------------------------------------------------------
	555	/** @brief Set whether the fbx importer will read materials.
	556	*
	557	* The default value is true (1)
	558	* Property type: bool
	559	*/
	560	#define AI_CONFIG_IMPORT_FBX_READ_MATERIALS \
	561	"IMPORT_FBX_READ_MATERIALS"
	562
	563	// ---------------------------------------------------------------------------
	564	/** @brief Set whether the fbx importer will read cameras.
	565	*
	566	* The default value is true (1)
	567	* Property type: bool
	568	*/
	569	#define AI_CONFIG_IMPORT_FBX_READ_CAMERAS \
	570	"IMPORT_FBX_READ_CAMERAS"
	571
	572	// ---------------------------------------------------------------------------
	573	/** @brief Set whether the fbx importer will read light sources.
	574	*
	575	* The default value is true (1)
	576	* Property type: bool
	577	*/
	578	#define AI_CONFIG_IMPORT_FBX_READ_LIGHTS \
	579	"IMPORT_FBX_READ_LIGHTS"
	580
	581	// ---------------------------------------------------------------------------
	582	/** @brief Set whether the fbx importer will read animations.
	583	*
	584	* The default value is true (1)
	585	* Property type: bool
	586	*/
	587	#define AI_CONFIG_IMPORT_FBX_READ_ANIMATIONS \
	588	"IMPORT_FBX_READ_ANIMATIONS"
	589
	590	// ---------------------------------------------------------------------------
	591	/** @brief Set whether the fbx importer will act in strict mode in which only
	592	* FBX 2013 is supported and any other sub formats are rejected. FBX 2013
	593	* is the primary target for the importer, so this format is best
	594	* supported and well-tested.
	595	*
	596	* The default value is false (0)
	597	* Property type: bool
	598	*/
	599	#define AI_CONFIG_IMPORT_FBX_STRICT_MODE \
	600	"IMPORT_FBX_STRICT_MODE"
	601
	602	// ---------------------------------------------------------------------------
	603	/** @brief Set whether the fbx importer will preserve pivot points for
	604	* transformations (as extra nodes). If set to false, pivots and offsets
	605	* will be evaluated whenever possible.
	606	*
	607	* The default value is true (1)
	608	* Property type: bool
	609	*/
	610	#define AI_CONFIG_IMPORT_FBX_PRESERVE_PIVOTS \
	611	"IMPORT_FBX_PRESERVE_PIVOTS"
	612
	613	// ---------------------------------------------------------------------------
	614	/** @brief Specifies whether the importer will drop empty animation curves or
	615	* animation curves which match the bind pose transformation over their
	616	* entire defined range.
	617	*
	618	* The default value is true (1)
	619	* Property type: bool
	620	*/
	621	#define AI_CONFIG_IMPORT_FBX_OPTIMIZE_EMPTY_ANIMATION_CURVES \
	622	"IMPORT_FBX_OPTIMIZE_EMPTY_ANIMATION_CURVES"
	623
496	624
497	625
498	626	// ---------------------------------------------------------------------------

672	800	#define AI_CONFIG_IMPORT_IRR_ANIM_FPS \
673	801	"IMPORT_IRR_ANIM_FPS"
674	802
675
676		// ---------------------------------------------------------------------------
677		/** @brief Ogre Importer will try to load this Materialfile.
678		*
679		* Ogre Meshes contain only the MaterialName, not the MaterialFile. If there
680		* is no material file with the same name as the material, Ogre Importer will
681		* try to load this file and search the material in it.
	803	// ---------------------------------------------------------------------------
	804	/** @brief Ogre Importer will try to find referenced materials from this file.
	805	*
	806	* Ogre meshes reference with material names, this does not tell Assimp the file
	807	* where it is located in. Assimp will try to find the source file in the following
	808	* order: <material-name>.material, <mesh-filename-base>.material and
	809	* lastly the material name defined by this config property.
682	810	* <br>
683		* Property type: String. Default value: guessed.
684		*/
685		#define AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE "IMPORT_OGRE_MATERIAL_FILE"
686
687
688		// ---------------------------------------------------------------------------
689		/** @brief Ogre Importer detect the texture usage from its filename
690		*
691		* Normally, a texture is loaded as a colormap, if no target is specified in the
692		* materialfile. Is this switch is enabled, texture names ending with _n, _l, _s
693		* are used as normalmaps, lightmaps or specularmaps.
	811	* Property type: String. Default value: Scene.material.
	812	*/
	813	#define AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE \
	814	"IMPORT_OGRE_MATERIAL_FILE"
	815
	816	// ---------------------------------------------------------------------------
	817	/** @brief Ogre Importer detect the texture usage from its filename.
	818	*
	819	* Ogre material texture units do not define texture type, the textures usage
	820	* depends on the used shader or Ogres fixed pipeline. If this config property
	821	* is true Assimp will try to detect the type from the textures filename postfix:
	822	* _n, _nrm, _nrml, _normal, _normals and _normalmap for normal map, _s, _spec,
	823	* _specular and _specularmap for specular map, _l, _light, _lightmap, _occ
	824	* and _occlusion for light map, _disp and _displacement for displacement map.
	825	* The matching is case insensitive. Post fix is taken between last "_" and last ".".
	826	* Default behavior is to detect type from lower cased texture unit name by
	827	* matching against: normalmap, specularmap, lightmap and displacementmap.
	828	* For both cases if no match is found aiTextureType_DIFFUSE is used.
694	829	* <br>
695	830	* Property type: Bool. Default value: false.
696	831	*/
697		#define AI_CONFIG_IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME "IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME"
698
699
700
701		// ---------------------------------------------------------------------------
	832	#define AI_CONFIG_IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME \
	833	"IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME"
	834
702	835	/** @brief Specifies whether the IFC loader skips over IfcSpace elements.
703	836	*
704	837	* IfcSpace elements (and their geometric representations) are used to

734	867	*/
735	868	#define AI_CONFIG_IMPORT_IFC_CUSTOM_TRIANGULATION "IMPORT_IFC_CUSTOM_TRIANGULATION"
736	869
	870	#define AI_CONFIG_IMPORT_COLLADA_IGNORE_UP_DIRECTION "IMPORT_COLLADA_IGNORE_UP_DIRECTION"
	871
737	872	#endif // !! AI_CONFIG_H_INC

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59	59	*
60	60	* Other (mixed) configuration switches are listed here:
61	61	* ASSIMP_BUILD_NO_COMPRESSED_X
62		* - Disable support for compressed X files
	62	* - Disable support for compressed X files (zip)
63	63	* ASSIMP_BUILD_NO_COMPRESSED_BLEND
64		* - Disable support for compressed Blender files*/
	64	* - Disable support for compressed Blender files (zip)
	65	* ASSIMP_BUILD_NO_COMPRESSED_IFC
	66	* - Disable support for IFCZIP files (unzip)
	67	*/
65	68	//////////////////////////////////////////////////////////////////////////
66	69
67	70	#ifndef ASSIMP_BUILD_NO_COMPRESSED_X

70	73
71	74	#ifndef ASSIMP_BUILD_NO_COMPRESSED_BLEND
72	75	# define ASSIMP_BUILD_NEED_Z_INFLATE
	76	#endif
	77
	78	#ifndef ASSIMP_BUILD_NO_COMPRESSED_IFC
	79	# define ASSIMP_BUILD_NEED_Z_INFLATE
	80	# define ASSIMP_BUILD_NEED_UNZIP
	81	#endif
	82
	83	#ifndef ASSIMP_BUILD_NO_Q3BSP_IMPORTER
	84	# define ASSIMP_BUILD_NEED_Z_INFLATE
	85	# define ASSIMP_BUILD_NEED_UNZIP
73	86	#endif
74	87
75	88	//////////////////////////////////////////////////////////////////////////

134	147	/* Tells the compiler that a function never returns. Used in code analysis
135	148	* to skip dead paths (e.g. after an assertion evaluated to false). */
136	149	# define AI_WONT_RETURN __declspec(noreturn)
	150
	151	#elif defined(SWIG)
	152
	153	/* Do nothing, the relevant defines are all in AssimpSwigPort.i */
	154
137	155	#else
138	156
139	157	# define AI_WONT_RETURN

142	160	# define ASSIMP_API_WINONLY
143	161	# define AI_FORCE_INLINE inline
144	162	#endif // (defined _MSC_VER)
	163
	164	#ifdef __clang__
	165	# define AI_WONT_RETURN_SUFFIX __attribute__((analyzer_noreturn))
	166	#else
	167	# define AI_WONT_RETURN_SUFFIX
	168	#endif // (defined __clang__)
145	169
146	170	#ifdef __cplusplus
147	171	/* No explicit 'struct' and 'enum' tags for C++, this keeps showing up

213	237	# define ASSIMP_BUILD_SINGLETHREADED
214	238	#endif
215	239
216		#ifndef ASSIMP_BUILD_SINGLETHREADED
217		# define AI_C_THREADSAFE
218		#endif // !! ASSIMP_BUILD_SINGLETHREADED
219
220		#ifdef _DEBUG
	240	#if defined(_DEBUG) \|\| ! defined(NDEBUG)
221	241	# define ASSIMP_BUILD_DEBUG
222	242	#endif
223	243

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79	79	* compiler to map this enum to a 32 Bit integer.
80	80	*/
81	81	#ifndef SWIG
82		_aiLightSource_Force32Bit = 0x9fffffff
	82	_aiLightSource_Force32Bit = INT_MAX
83	83	#endif
84	84	};
85	85

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99	99	* 32 Bit integers to represent this enum.
100	100	*/
101	101	#ifndef SWIG
102		_aiTextureOp_Force32Bit = 0x9fffffff
	102	_aiTextureOp_Force32Bit = INT_MAX
103	103	#endif
104	104	//! @endcond
105	105	};

135	135	* 32 Bit integers to represent this enum.
136	136	*/
137	137	#ifndef SWIG
138		_aiTextureMapMode_Force32Bit = 0x9fffffff
	138	_aiTextureMapMode_Force32Bit = INT_MAX
139	139	#endif
140	140	//! @endcond
141	141	};

180	180	* 32 Bit integers to represent this enum.
181	181	*/
182	182	#ifndef SWIG
183		_aiTextureMapping_Force32Bit = 0x9fffffff
	183	_aiTextureMapping_Force32Bit = INT_MAX
184	184	#endif
185	185	//! @endcond
186	186	};

300	300	* 32 Bit integers to represent this enum.
301	301	*/
302	302	#ifndef SWIG
303		_aiTextureType_Force32Bit = 0x9fffffff
	303	_aiTextureType_Force32Bit = INT_MAX
304	304	#endif
305	305	//! @endcond
306	306	};

378	378	* 32 Bit integers to represent this enum.
379	379	*/
380	380	#ifndef SWIG
381		_aiShadingMode_Force32Bit = 0x9fffffff
	381	_aiShadingMode_Force32Bit = INT_MAX
382	382	#endif
383	383	//! @endcond
384	384	};

424	424	* 32 Bit integers to represent this enum.
425	425	*/
426	426	#ifndef SWIG
427		_aiTextureFlags_Force32Bit = 0x9fffffff
	427	_aiTextureFlags_Force32Bit = INT_MAX
428	428	#endif
429	429	//! @endcond
430	430	};

473	473	* 32 Bit integers to represent this enum.
474	474	*/
475	475	#ifndef SWIG
476		_aiBlendMode_Force32Bit = 0x9fffffff
	476	_aiBlendMode_Force32Bit = INT_MAX
477	477	#endif
478	478	//! @endcond
479	479	};

567	567	* compiler to map this enum to a 32 Bit integer.
568	568	*/
569	569	#ifndef SWIG
570		_aiPTI_Force32Bit = 0x9fffffff
	570	_aiPTI_Force32Bit = INT_MAX
571	571	#endif
572	572	};
573	573

630	630
631	631	#ifdef __cplusplus
632	632
633		aiMaterialProperty() {
634		mData = NULL;
635		mIndex = mSemantic = 0;
	633	aiMaterialProperty()
	634	: mSemantic( 0 )
	635	, mIndex( 0 )
	636	, mDataLength( 0 )
	637	, mType( aiPTI_Float )
	638	, mData( NULL )
	639	{
636	640	}
637	641
638	642	~aiMaterialProperty() {

656	660	* have to stick with the aiMaterialGetXXX family of unbound functions.
657	661	* The library defines a set of standard keys (AI_MATKEY_XXX).
658	662	*/
	663	#ifdef __cplusplus
659	664	struct ASSIMP_API aiMaterial
	665	#else
	666	struct aiMaterial
	667	#endif
660	668	{
661	669
662	670	#ifdef __cplusplus

682	690	aiReturn Get(const char* pKey,unsigned int type,
683	691	unsigned int idx, Type* pOut, unsigned int* pMax) const;
684	692
	693	aiReturn Get(const char* pKey,unsigned int type,
	694	unsigned int idx, int* pOut, unsigned int* pMax) const;
	695
	696	aiReturn Get(const char* pKey,unsigned int type,
	697	unsigned int idx, float* pOut, unsigned int* pMax) const;
	698
685	699	// -------------------------------------------------------------------
686	700	/** @brief Retrieve a Type value with a specific key
687	701	* from the material

695	709	template <typename Type>
696	710	aiReturn Get(const char* pKey,unsigned int type,
697	711	unsigned int idx,Type& pOut) const;
	712
	713
	714	aiReturn Get(const char* pKey,unsigned int type,
	715	unsigned int idx, int& pOut) const;
	716
	717	aiReturn Get(const char* pKey,unsigned int type,
	718	unsigned int idx, float& pOut) const;
	719
	720	aiReturn Get(const char* pKey,unsigned int type,
	721	unsigned int idx, aiString& pOut) const;
	722
	723	aiReturn Get(const char* pKey,unsigned int type,
	724	unsigned int idx, aiColor3D& pOut) const;
	725
	726	aiReturn Get(const char* pKey,unsigned int type,
	727	unsigned int idx, aiColor4D& pOut) const;
	728
	729	aiReturn Get(const char* pKey,unsigned int type,
	730	unsigned int idx, aiUVTransform& pOut) const;
698	731
699	732	// -------------------------------------------------------------------
700	733	/** Get the number of textures for a particular texture type.

788	821	unsigned int type = 0,
789	822	unsigned int index = 0);
790	823
	824	aiReturn AddProperty (const aiVector3D* pInput,
	825	unsigned int pNumValues,
	826	const char* pKey,
	827	unsigned int type = 0,
	828	unsigned int index = 0);
	829
	830	aiReturn AddProperty (const aiColor3D* pInput,
	831	unsigned int pNumValues,
	832	const char* pKey,
	833	unsigned int type = 0,
	834	unsigned int index = 0);
	835
	836	aiReturn AddProperty (const aiColor4D* pInput,
	837	unsigned int pNumValues,
	838	const char* pKey,
	839	unsigned int type = 0,
	840	unsigned int index = 0);
	841
	842	aiReturn AddProperty (const int* pInput,
	843	unsigned int pNumValues,
	844	const char* pKey,
	845	unsigned int type = 0,
	846	unsigned int index = 0);
	847
	848	aiReturn AddProperty (const float* pInput,
	849	unsigned int pNumValues,
	850	const char* pKey,
	851	unsigned int type = 0,
	852	unsigned int index = 0);
	853
	854	aiReturn AddProperty (const aiUVTransform* pInput,
	855	unsigned int pNumValues,
	856	const char* pKey,
	857	unsigned int type = 0,
	858	unsigned int index = 0);
	859
791	860	// ------------------------------------------------------------------------------
792	861	/** @brief Remove a given key from the list.
793	862	*

1401	1470	unsigned int type,
1402	1471	unsigned int index,
1403	1472	C_STRUCT aiColor4D* pOut);
	1473
	1474
	1475	// ---------------------------------------------------------------------------
	1476	/** @brief Retrieve a aiUVTransform value from the material property table
	1477	*
	1478	* See the sample for aiGetMaterialFloat for more information*/
	1479	// ---------------------------------------------------------------------------
	1480	ASSIMP_API C_ENUM aiReturn aiGetMaterialUVTransform(const C_STRUCT aiMaterial* pMat,
	1481	const char* pKey,
	1482	unsigned int type,
	1483	unsigned int index,
	1484	C_STRUCT aiUVTransform* pOut);
1404	1485
1405	1486
1406	1487	// ---------------------------------------------------------------------------

+106

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include/assimp/material.inl less more

88	88	}
89	89
90	90	iNum = std::min((size_t)iNum,prop->mDataLength / sizeof(Type));
91		memcpy(pOut,prop->mData,iNum * sizeof(Type));
	91	::memcpy(pOut,prop->mData,iNum * sizeof(Type));
92	92	if (pMax) {
93	93	*pMax = iNum;
94	94	}

114	114	return AI_FAILURE;
115	115	}
116	116
117		memcpy(&pOut,prop->mData,sizeof(Type));
	117	::memcpy(&pOut,prop->mData,sizeof(Type));
118	118	}
119	119	return ret;
120	120	}
121	121
122	122	// ---------------------------------------------------------------------------
123		template <>
124		inline aiReturn aiMaterial::Get<float>(const char* pKey,unsigned int type,
	123	inline aiReturn aiMaterial::Get(const char* pKey,unsigned int type,
125	124	unsigned int idx,float* pOut,
126	125	unsigned int* pMax) const
127	126	{
128	127	return ::aiGetMaterialFloatArray(this,pKey,type,idx,pOut,pMax);
129	128	}
130	129	// ---------------------------------------------------------------------------
131		template <>
132		inline aiReturn aiMaterial::Get<int>(const char* pKey,unsigned int type,
	130	inline aiReturn aiMaterial::Get(const char* pKey,unsigned int type,
133	131	unsigned int idx,int* pOut,
134	132	unsigned int* pMax) const
135	133	{
136	134	return ::aiGetMaterialIntegerArray(this,pKey,type,idx,pOut,pMax);
137	135	}
138	136	// ---------------------------------------------------------------------------
139		template <>
140		inline aiReturn aiMaterial::Get<float>(const char* pKey,unsigned int type,
	137	inline aiReturn aiMaterial::Get(const char* pKey,unsigned int type,
141	138	unsigned int idx,float& pOut) const
142	139	{
143	140	return aiGetMaterialFloat(this,pKey,type,idx,&pOut);
144	141	}
145	142	// ---------------------------------------------------------------------------
146		template <>
147		inline aiReturn aiMaterial::Get<int>(const char* pKey,unsigned int type,
	143	inline aiReturn aiMaterial::Get(const char* pKey,unsigned int type,
148	144	unsigned int idx,int& pOut) const
149	145	{
150	146	return aiGetMaterialInteger(this,pKey,type,idx,&pOut);
151	147	}
152	148	// ---------------------------------------------------------------------------
153		template <>
154		inline aiReturn aiMaterial::Get<aiColor4D>(const char* pKey,unsigned int type,
	149	inline aiReturn aiMaterial::Get(const char* pKey,unsigned int type,
155	150	unsigned int idx,aiColor4D& pOut) const
156	151	{
157	152	return aiGetMaterialColor(this,pKey,type,idx,&pOut);
158	153	}
159	154	// ---------------------------------------------------------------------------
160		template <>
161		inline aiReturn aiMaterial::Get<aiColor3D>(const char* pKey,unsigned int type,
	155	inline aiReturn aiMaterial::Get(const char* pKey,unsigned int type,
162	156	unsigned int idx,aiColor3D& pOut) const
163	157	{
164	158	aiColor4D c;

167	161	return ret;
168	162	}
169	163	// ---------------------------------------------------------------------------
170		template <>
171		inline aiReturn aiMaterial::Get<aiString>(const char* pKey,unsigned int type,
	164	inline aiReturn aiMaterial::Get(const char* pKey,unsigned int type,
172	165	unsigned int idx,aiString& pOut) const
173	166	{
174	167	return aiGetMaterialString(this,pKey,type,idx,&pOut);
175	168	}
176
177
178		#ifndef ASSIMP_BUILD_NO_EXPORT
	169	// ---------------------------------------------------------------------------
	170	inline aiReturn aiMaterial::Get(const char* pKey,unsigned int type,
	171	unsigned int idx,aiUVTransform& pOut) const
	172	{
	173	return aiGetMaterialUVTransform(this,pKey,type,idx,&pOut);
	174	}
	175
179	176
180	177	// ---------------------------------------------------------------------------
181	178	template<class TYPE>

191	188	}
192	189
193	190	// ---------------------------------------------------------------------------
194		template<>
195		inline aiReturn aiMaterial::AddProperty<float> (const float* pInput,
	191	inline aiReturn aiMaterial::AddProperty(const float* pInput,
196	192	const unsigned int pNumValues,
197	193	const char* pKey,
198	194	unsigned int type,

204	200	}
205	201
206	202	// ---------------------------------------------------------------------------
207		template<>
208		inline aiReturn aiMaterial::AddProperty<aiUVTransform> (const aiUVTransform* pInput,
	203	inline aiReturn aiMaterial::AddProperty(const aiUVTransform* pInput,
209	204	const unsigned int pNumValues,
210	205	const char* pKey,
211	206	unsigned int type,

217	212	}
218	213
219	214	// ---------------------------------------------------------------------------
220		template<>
221		inline aiReturn aiMaterial::AddProperty<aiColor4D> (const aiColor4D* pInput,
	215	inline aiReturn aiMaterial::AddProperty(const aiColor4D* pInput,
222	216	const unsigned int pNumValues,
223	217	const char* pKey,
224	218	unsigned int type,

230	224	}
231	225
232	226	// ---------------------------------------------------------------------------
233		template<>
234		inline aiReturn aiMaterial::AddProperty<aiColor3D> (const aiColor3D* pInput,
	227	inline aiReturn aiMaterial::AddProperty(const aiColor3D* pInput,
235	228	const unsigned int pNumValues,
236	229	const char* pKey,
237	230	unsigned int type,

243	236	}
244	237
245	238	// ---------------------------------------------------------------------------
246		template<>
247		inline aiReturn aiMaterial::AddProperty<aiVector3D> (const aiVector3D* pInput,
	239	inline aiReturn aiMaterial::AddProperty(const aiVector3D* pInput,
248	240	const unsigned int pNumValues,
249	241	const char* pKey,
250	242	unsigned int type,

256	248	}
257	249
258	250	// ---------------------------------------------------------------------------
259		template<>
260		inline aiReturn aiMaterial::AddProperty<int> (const int* pInput,
	251	inline aiReturn aiMaterial::AddProperty(const int* pInput,
261	252	const unsigned int pNumValues,
262	253	const char* pKey,
263	254	unsigned int type,

268	259	pKey,type,index,aiPTI_Integer);
269	260	}
270	261
271		#endif
	262
	263	// ---------------------------------------------------------------------------
	264	// The template specializations below are for backwards compatibility.
	265	// The recommended way to add material properties is using the non-template
	266	// overloads.
	267	// ---------------------------------------------------------------------------
	268
	269	// ---------------------------------------------------------------------------
	270	template<>
	271	inline aiReturn aiMaterial::AddProperty<float>(const float* pInput,
	272	const unsigned int pNumValues,
	273	const char* pKey,
	274	unsigned int type,
	275	unsigned int index)
	276	{
	277	return AddBinaryProperty((const void*)pInput,
	278	pNumValues * sizeof(float),
	279	pKey,type,index,aiPTI_Float);
	280	}
	281
	282	// ---------------------------------------------------------------------------
	283	template<>
	284	inline aiReturn aiMaterial::AddProperty<aiUVTransform>(const aiUVTransform* pInput,
	285	const unsigned int pNumValues,
	286	const char* pKey,
	287	unsigned int type,
	288	unsigned int index)
	289	{
	290	return AddBinaryProperty((const void*)pInput,
	291	pNumValues * sizeof(aiUVTransform),
	292	pKey,type,index,aiPTI_Float);
	293	}
	294
	295	// ---------------------------------------------------------------------------
	296	template<>
	297	inline aiReturn aiMaterial::AddProperty<aiColor4D>(const aiColor4D* pInput,
	298	const unsigned int pNumValues,
	299	const char* pKey,
	300	unsigned int type,
	301	unsigned int index)
	302	{
	303	return AddBinaryProperty((const void*)pInput,
	304	pNumValues * sizeof(aiColor4D),
	305	pKey,type,index,aiPTI_Float);
	306	}
	307
	308	// ---------------------------------------------------------------------------
	309	template<>
	310	inline aiReturn aiMaterial::AddProperty<aiColor3D>(const aiColor3D* pInput,
	311	const unsigned int pNumValues,
	312	const char* pKey,
	313	unsigned int type,
	314	unsigned int index)
	315	{
	316	return AddBinaryProperty((const void*)pInput,
	317	pNumValues * sizeof(aiColor3D),
	318	pKey,type,index,aiPTI_Float);
	319	}
	320
	321	// ---------------------------------------------------------------------------
	322	template<>
	323	inline aiReturn aiMaterial::AddProperty<aiVector3D>(const aiVector3D* pInput,
	324	const unsigned int pNumValues,
	325	const char* pKey,
	326	unsigned int type,
	327	unsigned int index)
	328	{
	329	return AddBinaryProperty((const void*)pInput,
	330	pNumValues * sizeof(aiVector3D),
	331	pKey,type,index,aiPTI_Float);
	332	}
	333
	334	// ---------------------------------------------------------------------------
	335	template<>
	336	inline aiReturn aiMaterial::AddProperty<int>(const int* pInput,
	337	const unsigned int pNumValues,
	338	const char* pKey,
	339	unsigned int type,
	340	unsigned int index)
	341	{
	342	return AddBinaryProperty((const void*)pInput,
	343	pNumValues * sizeof(int),
	344	pKey,type,index,aiPTI_Integer);
	345	}
272	346
273	347	//! @endcond
274	348

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include/assimp/matrix3x3.h less more

89	89	const TReal* operator[] (unsigned int p_iIndex) const;
90	90
91	91	// comparison operators
92		bool operator== (const aiMatrix4x4t<TReal> m) const;
93		bool operator!= (const aiMatrix4x4t<TReal> m) const;
	92	bool operator== (const aiMatrix4x4t<TReal>& m) const;
	93	bool operator!= (const aiMatrix4x4t<TReal>& m) const;
	94
	95	bool Equal(const aiMatrix4x4t<TReal>& m, TReal epsilon = 1e-6) const;
94	96
95	97	template <typename TOther>
96	98	operator aiMatrix3x3t<TOther> () const;

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49	49
50	50	#include "matrix4x4.h"
51	51	#include <algorithm>
	52	#include <cmath>
52	53	#include <limits>
53	54
54	55	// ------------------------------------------------------------------------------------------------

112	113
113	114	// ------------------------------------------------------------------------------------------------
114	115	template <typename TReal>
115		inline bool aiMatrix3x3t<TReal>::operator== (const aiMatrix4x4t<TReal> m) const
	116	inline bool aiMatrix3x3t<TReal>::operator== (const aiMatrix4x4t<TReal>& m) const
116	117	{
117	118	return a1 == m.a1 && a2 == m.a2 && a3 == m.a3 &&
118	119	b1 == m.b1 && b2 == m.b2 && b3 == m.b3 &&

121	122
122	123	// ------------------------------------------------------------------------------------------------
123	124	template <typename TReal>
124		inline bool aiMatrix3x3t<TReal>::operator!= (const aiMatrix4x4t<TReal> m) const
	125	inline bool aiMatrix3x3t<TReal>::operator!= (const aiMatrix4x4t<TReal>& m) const
125	126	{
126	127	return !(*this == m);
	128	}
	129
	130	// ---------------------------------------------------------------------------
	131	template<typename TReal>
	132	inline bool aiMatrix3x3t<TReal>::Equal(const aiMatrix4x4t<TReal>& m, TReal epsilon) const {
	133	return
	134	std::abs(a1 - m.a1) <= epsilon &&
	135	std::abs(a2 - m.a2) <= epsilon &&
	136	std::abs(a3 - m.a3) <= epsilon &&
	137	std::abs(b1 - m.b1) <= epsilon &&
	138	std::abs(b2 - m.b2) <= epsilon &&
	139	std::abs(b3 - m.b3) <= epsilon &&
	140	std::abs(c1 - m.c1) <= epsilon &&
	141	std::abs(c2 - m.c2) <= epsilon &&
	142	std::abs(c3 - m.c3) <= epsilon;
127	143	}
128	144
129	145	// ------------------------------------------------------------------------------------------------

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77	77
78	78	/** construction from 3x3 matrix, remaining elements are set to identity */
79	79	explicit aiMatrix4x4t( const aiMatrix3x3t<TReal>& m);
	80
	81	/** construction from position, rotation and scaling components
	82	* @param scaling The scaling for the x,y,z axes
	83	* @param rotation The rotation as a hamilton quaternion
	84	* @param position The position for the x,y,z axes
	85	*/
	86	aiMatrix4x4t(const aiVector3t<TReal>& scaling, const aiQuaterniont<TReal>& rotation,
	87	const aiVector3t<TReal>& position);
80	88
81	89	public:
82	90

85	93	const TReal* operator[] (unsigned int p_iIndex) const;
86	94
87	95	// comparison operators
88		bool operator== (const aiMatrix4x4t m) const;
89		bool operator!= (const aiMatrix4x4t m) const;
	96	bool operator== (const aiMatrix4x4t& m) const;
	97	bool operator!= (const aiMatrix4x4t& m) const;
	98
	99	bool Equal(const aiMatrix4x4t& m, TReal epsilon = 1e-6) const;
90	100
91	101	// matrix multiplication.
92	102	aiMatrix4x4t& operator *= (const aiMatrix4x4t& m);

+89

-34

include/assimp/matrix4x4.inl less more

6	6
7	7	All rights reserved.
8	8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
11	11	conditions are met:
12	12
13	13	* Redistributions of source code must retain the above

24	24	derived from this software without specific prior
25	25	written permission of the assimp team.
26	26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38	38	---------------------------------------------------------------------------
39	39	*/

51	51	#include "quaternion.h"
52	52
53	53	#include <algorithm>
54		#include <limits>
55		#include <math.h>
56
57		// ----------------------------------------------------------------------------------------
58		template <typename TReal>
59		aiMatrix4x4t<TReal> ::aiMatrix4x4t () :
60		a1(1.0f), a2(), a3(), a4(),
61		b1(), b2(1.0f), b3(), b4(),
	54	#include <limits>
	55
	56	#ifdef __cplusplus
	57	# include <cmath>
	58	#else
	59	# include <math.h>
	60	#endif
	61
	62	// ----------------------------------------------------------------------------------------
	63	template <typename TReal>
	64	aiMatrix4x4t<TReal> ::aiMatrix4x4t () :
	65	a1(1.0f), a2(), a3(), a4(),
	66	b1(), b2(1.0f), b3(), b4(),
62	67	c1(), c2(), c3(1.0f), c4(),
63	68	d1(), d2(), d3(), d4(1.0f)
64	69	{

70	75	aiMatrix4x4t<TReal> ::aiMatrix4x4t (TReal _a1, TReal _a2, TReal _a3, TReal _a4,
71	76	TReal _b1, TReal _b2, TReal _b3, TReal _b4,
72	77	TReal _c1, TReal _c2, TReal _c3, TReal _c4,
73		TReal _d1, TReal _d2, TReal _d3, TReal _d4) :
74		a1(_a1), a2(_a2), a3(_a3), a4(_a4),
75		b1(_b1), b2(_b2), b3(_b3), b4(_b4),
	78	TReal _d1, TReal _d2, TReal _d3, TReal _d4) :
	79	a1(_a1), a2(_a2), a3(_a3), a4(_a4),
	80	b1(_b1), b2(_b2), b3(_b3), b4(_b4),
76	81	c1(_c1), c2(_c2), c3(_c3), c4(_c4),
77	82	d1(_d1), d2(_d2), d3(_d3), d4(_d4)
78	83	{
79
	84
80	85	}
81	86
82	87	// ------------------------------------------------------------------------------------------------

99	104	b1 = m.b1; b2 = m.b2; b3 = m.b3; b4 = static_cast<TReal>(0.0);
100	105	c1 = m.c1; c2 = m.c2; c3 = m.c3; c4 = static_cast<TReal>(0.0);
101	106	d1 = static_cast<TReal>(0.0); d2 = static_cast<TReal>(0.0); d3 = static_cast<TReal>(0.0); d4 = static_cast<TReal>(1.0);
	107	}
	108
	109	// ----------------------------------------------------------------------------------------
	110	template <typename TReal>
	111	inline aiMatrix4x4t<TReal>::aiMatrix4x4t (const aiVector3t<TReal>& scaling, const aiQuaterniont<TReal>& rotation, const aiVector3t<TReal>& position)
	112	{
	113	// build a 3x3 rotation matrix
	114	aiMatrix3x3t<TReal> m = rotation.GetMatrix();
	115
	116	a1 = m.a1 * scaling.x;
	117	a2 = m.a2 * scaling.x;
	118	a3 = m.a3 * scaling.x;
	119	a4 = position.x;
	120
	121	b1 = m.b1 * scaling.y;
	122	b2 = m.b2 * scaling.y;
	123	b3 = m.b3 * scaling.y;
	124	b4 = position.y;
	125
	126	c1 = m.c1 * scaling.z;
	127	c2 = m.c2 * scaling.z;
	128	c3 = m.c3 * scaling.z;
	129	c4= position.z;
	130
	131	d1 = static_cast<TReal>(0.0);
	132	d2 = static_cast<TReal>(0.0);
	133	d3 = static_cast<TReal>(0.0);
	134	d4 = static_cast<TReal>(1.0);
102	135	}
103	136
104	137	// ----------------------------------------------------------------------------------------

154	187	template <typename TReal>
155	188	inline TReal aiMatrix4x4t<TReal>::Determinant() const
156	189	{
157		return a1b2c3d4 - a1b2c4d3 + a1b3c4d2 - a1b3c2d4
158		+ a1b4c2d3 - a1b4c3d2 - a2b3c4d1 + a2b3c1d4
159		- a2b4c1d3 + a2b4c3d1 - a2b1c3d4 + a2b1c4d3
160		+ a3b4c1d2 - a3b4c2d1 + a3b1c2d4 - a3b1c4d2
	190	return a1b2c3d4 - a1b2c4d3 + a1b3c4d2 - a1b3c2d4
	191	+ a1b4c2d3 - a1b4c3d2 - a2b3c4d1 + a2b3c1d4
	192	- a2b4c1d3 + a2b4c3d1 - a2b1c3d4 + a2b1c4d3
	193	+ a3b4c1d2 - a3b4c2d1 + a3b1c2d4 - a3b1c4d2
161	194	+ a3b2c4d1 - a3b2c1d4 - a4b1c2d3 + a4b1c3d2
162	195	- a4b2c3d1 + a4b2c1d3 - a4b3c1d2 + a4b3c2d1;
163	196	}

168	201	{
169	202	// Compute the reciprocal determinant
170	203	const TReal det = Determinant();
171		if(det == static_cast<TReal>(0.0))
	204	if(det == static_cast<TReal>(0.0))
172	205	{
173	206	// Matrix not invertible. Setting all elements to nan is not really
174	207	// correct in a mathematical sense but it is easy to debug for the

201	234	res.d1 = -invdet * (b1 * (c2 * d3 - c3 * d2) + b2 * (c3 * d1 - c1 * d3) + b3 * (c1 * d2 - c2 * d1));
202	235	res.d2 = invdet * (a1 * (c2 * d3 - c3 * d2) + a2 * (c3 * d1 - c1 * d3) + a3 * (c1 * d2 - c2 * d1));
203	236	res.d3 = -invdet * (a1 * (b2 * d3 - b3 * d2) + a2 * (b3 * d1 - b1 * d3) + a3 * (b1 * d2 - b2 * d1));
204		res.d4 = invdet * (a1 * (b2 * c3 - b3 * c2) + a2 * (b3 * c1 - b1 * c3) + a3 * (b1 * c2 - b2 * c1));
	237	res.d4 = invdet * (a1 * (b2 * c3 - b3 * c2) + a2 * (b3 * c1 - b1 * c3) + a3 * (b1 * c2 - b2 * c1));
205	238	*this = res;
206	239
207	240	return *this;

225	258
226	259	// ----------------------------------------------------------------------------------------
227	260	template <typename TReal>
228		inline bool aiMatrix4x4t<TReal>::operator== (const aiMatrix4x4t<TReal> m) const
	261	inline bool aiMatrix4x4t<TReal>::operator== (const aiMatrix4x4t<TReal>& m) const
229	262	{
230	263	return (a1 == m.a1 && a2 == m.a2 && a3 == m.a3 && a4 == m.a4 &&
231	264	b1 == m.b1 && b2 == m.b2 && b3 == m.b3 && b4 == m.b4 &&

235	268
236	269	// ----------------------------------------------------------------------------------------
237	270	template <typename TReal>
238		inline bool aiMatrix4x4t<TReal>::operator!= (const aiMatrix4x4t<TReal> m) const
	271	inline bool aiMatrix4x4t<TReal>::operator!= (const aiMatrix4x4t<TReal>& m) const
239	272	{
240	273	return !(*this == m);
	274	}
	275
	276	// ---------------------------------------------------------------------------
	277	template<typename TReal>
	278	inline bool aiMatrix4x4t<TReal>::Equal(const aiMatrix4x4t<TReal>& m, TReal epsilon) const {
	279	return
	280	std::abs(a1 - m.a1) <= epsilon &&
	281	std::abs(a2 - m.a2) <= epsilon &&
	282	std::abs(a3 - m.a3) <= epsilon &&
	283	std::abs(a4 - m.a4) <= epsilon &&
	284	std::abs(b1 - m.b1) <= epsilon &&
	285	std::abs(b2 - m.b2) <= epsilon &&
	286	std::abs(b3 - m.b3) <= epsilon &&
	287	std::abs(b4 - m.b4) <= epsilon &&
	288	std::abs(c1 - m.c1) <= epsilon &&
	289	std::abs(c2 - m.c2) <= epsilon &&
	290	std::abs(c3 - m.c3) <= epsilon &&
	291	std::abs(c4 - m.c4) <= epsilon &&
	292	std::abs(d1 - m.d1) <= epsilon &&
	293	std::abs(d2 - m.d2) <= epsilon &&
	294	std::abs(d3 - m.d3) <= epsilon &&
	295	std::abs(d4 - m.d4) <= epsilon;
241	296	}
242	297
243	298	// ----------------------------------------------------------------------------------------

367	422	d1 <= epsilon && d1 >= -epsilon &&
368	423	d2 <= epsilon && d2 >= -epsilon &&
369	424	d3 <= epsilon && d3 >= -epsilon &&
370		a1 <= 1.f+epsilon && a1 >= 1.f-epsilon &&
371		b2 <= 1.f+epsilon && b2 >= 1.f-epsilon &&
372		c3 <= 1.f+epsilon && c3 >= 1.f-epsilon &&
	425	a1 <= 1.f+epsilon && a1 >= 1.f-epsilon &&
	426	b2 <= 1.f+epsilon && b2 >= 1.f-epsilon &&
	427	c3 <= 1.f+epsilon && c3 >= 1.f-epsilon &&
373	428	d4 <= 1.f+epsilon && d4 >= 1.f-epsilon);
374	429	}
375	430

471	526	*/
472	527	// ----------------------------------------------------------------------------------------
473	528	template <typename TReal>
474		inline aiMatrix4x4t<TReal>& aiMatrix4x4t<TReal>::FromToMatrix(const aiVector3t<TReal>& from,
	529	inline aiMatrix4x4t<TReal>& aiMatrix4x4t<TReal>::FromToMatrix(const aiVector3t<TReal>& from,
475	530	const aiVector3t<TReal>& to, aiMatrix4x4t<TReal>& mtx)
476		{
	531	{
477	532	aiMatrix3x3t<TReal> m3;
478	533	aiMatrix3x3t<TReal>::FromToMatrix(from,to,m3);
479	534	mtx = aiMatrix4x4t<TReal>(m3);

+41

-35

include/assimp/mesh.h less more

134	134
135	135	//! Default constructor
136	136	aiFace()
137		{
138		mNumIndices = 0; mIndices = NULL;
	137	: mNumIndices( 0 )
	138	, mIndices( NULL )
	139	{
139	140	}
140	141
141	142	//! Default destructor. Delete the index array

146	147
147	148	//! Copy constructor. Copy the index array
148	149	aiFace( const aiFace& o)
149		{
150		mIndices = NULL;
	150	: mIndices( NULL )
	151	{
151	152	*this = o;
152	153	}
153	154
154	155	//! Assignment operator. Copy the index array
155		const aiFace& operator = ( const aiFace& o)
	156	aiFace& operator = ( const aiFace& o)
156	157	{
157	158	if (&o == this)
158	159	return *this;
159	160
160	161	delete[] mIndices;
161	162	mNumIndices = o.mNumIndices;
162		mIndices = new unsigned int[mNumIndices];
163		::memcpy( mIndices, o.mIndices, mNumIndices * sizeof( unsigned int));
	163	if (mNumIndices) {
	164	mIndices = new unsigned int[mNumIndices];
	165	::memcpy( mIndices, o.mIndices, mNumIndices * sizeof( unsigned int));
	166	}
	167	else {
	168	mIndices = NULL;
	169	}
164	170	return *this;
165	171	}
166	172

242	248
243	249	//! Default constructor
244	250	aiBone()
245		{
246		mNumWeights = 0; mWeights = NULL;
	251	: mNumWeights( 0 )
	252	, mWeights( NULL )
	253	{
247	254	}
248	255
249	256	//! Copy constructor
250	257	aiBone(const aiBone& other)
251		{
252		mNumWeights = other.mNumWeights;
253		mOffsetMatrix = other.mOffsetMatrix;
254		mName = other.mName;
255
	258	: mName( other.mName )
	259	, mNumWeights( other.mNumWeights )
	260	, mOffsetMatrix( other.mOffsetMatrix )
	261	{
256	262	if (other.mWeights && other.mNumWeights)
257	263	{
258	264	mWeights = new aiVertexWeight[mNumWeights];

313	319	* compiler to map this enum to a 32 Bit integer.
314	320	*/
315	321	#ifndef SWIG
316		_aiPrimitiveType_Force32Bit = 0x9fffffff
	322	_aiPrimitiveType_Force32Bit = INT_MAX
317	323	#endif
318	324	}; //! enum aiPrimitiveType
319	325

372	378	#ifdef __cplusplus
373	379
374	380	aiAnimMesh()
375		: mVertices()
376		, mNormals()
377		, mTangents()
378		, mBitangents()
	381	: mVertices( NULL )
	382	, mNormals( NULL )
	383	, mTangents( NULL )
	384	, mBitangents( NULL )
	385	, mNumVertices( 0 )
379	386	{
380	387	// fixme consider moving this to the ctor initializer list as well
381	388	for( unsigned int a = 0; a < AI_MAX_NUMBER_OF_TEXTURECOORDS; a++){

603	610
604	611	//! Default constructor. Initializes all members to 0
605	612	aiMesh()
606		{
607		mNumVertices = 0;
608		mNumFaces = 0;
609
610		mNumAnimMeshes = 0;
611
612		mPrimitiveTypes = 0;
613		mVertices = NULL; mFaces = NULL;
614		mNormals = NULL; mTangents = NULL;
615		mBitangents = NULL;
616		mAnimMeshes = NULL;
617
	613	: mPrimitiveTypes( 0 )
	614	, mNumVertices( 0 )
	615	, mNumFaces( 0 )
	616	, mVertices( NULL )
	617	, mNormals( NULL )
	618	, mTangents( NULL )
	619	, mBitangents( NULL )
	620	, mFaces( NULL )
	621	, mNumBones( 0 )
	622	, mBones( NULL )
	623	, mMaterialIndex( 0 )
	624	, mNumAnimMeshes( 0 )
	625	, mAnimMeshes( NULL )
	626	{
618	627	for( unsigned int a = 0; a < AI_MAX_NUMBER_OF_TEXTURECOORDS; a++)
619	628	{
620	629	mNumUVComponents[a] = 0;
621	630	mTextureCoords[a] = NULL;
622	631	}
	632
623	633	for( unsigned int a = 0; a < AI_MAX_NUMBER_OF_COLOR_SETS; a++)
624	634	mColors[a] = NULL;
625		mNumBones = 0; mBones = NULL;
626		mMaterialIndex = 0;
627		mNumAnimMeshes = 0;
628		mAnimMeshes = NULL;
629	635	}
630	636
631	637	//! Deletes all storage allocated for the mesh

+247

-0

include/assimp/metadata.h less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (assimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/** @file metadata.h
	42	* @brief Defines the data structures for holding node meta information.
	43	*/
	44	#ifndef __AI_METADATA_H_INC__
	45	#define __AI_METADATA_H_INC__
	46
	47	#include <assert.h>
	48
	49	#if defined(_MSC_VER) && (_MSC_VER <= 1500)
	50	#include "Compiler/pstdint.h"
	51	#else
	52	#include <stdint.h>
	53	#endif
	54
	55
	56
	57	// -------------------------------------------------------------------------------
	58	/**
	59	* Enum used to distinguish data types
	60	*/
	61	// -------------------------------------------------------------------------------
	62	typedef enum aiMetadataType
	63	{
	64	AI_BOOL = 0,
	65	AI_INT = 1,
	66	AI_UINT64 = 2,
	67	AI_FLOAT = 3,
	68	AI_AISTRING = 4,
	69	AI_AIVECTOR3D = 5,
	70
	71	#ifndef SWIG
	72	FORCE_32BIT = INT_MAX
	73	#endif
	74	} aiMetadataType;
	75
	76
	77
	78	// -------------------------------------------------------------------------------
	79	/**
	80	* Metadata entry
	81	*
	82	* The type field uniquely identifies the underlying type of the data field
	83	*/
	84	// -------------------------------------------------------------------------------
	85	struct aiMetadataEntry
	86	{
	87	aiMetadataType mType;
	88	void* mData;
	89	};
	90
	91
	92
	93	#ifdef __cplusplus
	94
	95	#include <string>
	96
	97
	98
	99	// -------------------------------------------------------------------------------
	100	/**
	101	* Helper functions to get the aiType enum entry for a type
	102	*/
	103	// -------------------------------------------------------------------------------
	104	inline aiMetadataType GetAiType( bool ) { return AI_BOOL; }
	105	inline aiMetadataType GetAiType( int ) { return AI_INT; }
	106	inline aiMetadataType GetAiType( uint64_t ) { return AI_UINT64; }
	107	inline aiMetadataType GetAiType( float ) { return AI_FLOAT; }
	108	inline aiMetadataType GetAiType( aiString ) { return AI_AISTRING; }
	109	inline aiMetadataType GetAiType( aiVector3D ) { return AI_AIVECTOR3D; }
	110
	111
	112
	113	#endif
	114
	115
	116
	117	// -------------------------------------------------------------------------------
	118	/**
	119	* Container for holding metadata.
	120	*
	121	* Metadata is a key-value store using string keys and values.
	122	*/
	123	// -------------------------------------------------------------------------------
	124	struct aiMetadata
	125	{
	126	/** Length of the mKeys and mValues arrays, respectively */
	127	unsigned int mNumProperties;
	128
	129	/** Arrays of keys, may not be NULL. Entries in this array may not be NULL as well. */
	130	C_STRUCT aiString* mKeys;
	131
	132	/** Arrays of values, may not be NULL. Entries in this array may be NULL if the
	133	* corresponding property key has no assigned value. */
	134	C_STRUCT aiMetadataEntry* mValues;
	135
	136	#ifdef __cplusplus
	137
	138	/** Constructor */
	139	aiMetadata()
	140	// set all members to zero by default
	141	: mNumProperties(0)
	142	, mKeys(NULL)
	143	, mValues(NULL)
	144	{}
	145
	146
	147	/** Destructor */
	148	~aiMetadata()
	149	{
	150	delete[] mKeys;
	151	mKeys = NULL;
	152	if (mValues)
	153	{
	154	// Delete each metadata entry
	155	for (unsigned i=0; i<mNumProperties; ++i)
	156	{
	157	void* data = mValues[i].mData;
	158	switch (mValues[i].mType)
	159	{
	160	case AI_BOOL:
	161	delete static_cast<bool*>(data);
	162	break;
	163	case AI_INT:
	164	delete static_cast<int*>(data);
	165	break;
	166	case AI_UINT64:
	167	delete static_cast<uint64_t*>(data);
	168	break;
	169	case AI_FLOAT:
	170	delete static_cast<float*>(data);
	171	break;
	172	case AI_AISTRING:
	173	delete static_cast<aiString*>(data);
	174	break;
	175	case AI_AIVECTOR3D:
	176	delete static_cast<aiVector3D*>(data);
	177	break;
	178	default:
	179	assert(false);
	180	break;
	181	}
	182	}
	183
	184	// Delete the metadata array
	185	delete [] mValues;
	186	mValues = NULL;
	187	}
	188	}
	189
	190
	191
	192	template<typename T>
	193	inline void Set( unsigned index, const std::string& key, const T& value )
	194	{
	195	// In range assertion
	196	assert(index < mNumProperties);
	197
	198	// Set metadata key
	199	mKeys[index] = key;
	200
	201	// Set metadata type
	202	mValues[index].mType = GetAiType(value);
	203	// Copy the given value to the dynamic storage
	204	mValues[index].mData = new T(value);
	205	}
	206
	207	template<typename T>
	208	inline bool Get( unsigned index, T& value )
	209	{
	210	// In range assertion
	211	assert(index < mNumProperties);
	212
	213	// Return false if the output data type does
	214	// not match the found value's data type
	215	if ( GetAiType( value ) != mValues[ index ].mType ) {
	216	return false;
	217	}
	218
	219	// Otherwise, output the found value and
	220	// return true
	221	value = static_cast<T>(mValues[index].mData);
	222	return true;
	223	}
	224
	225	template<typename T>
	226	inline bool Get( const aiString& key, T& value )
	227	{
	228	// Search for the given key
	229	for (unsigned i=0; i<mNumProperties; ++i)
	230	if (mKeys[i]==key)
	231	return Get(i, value);
	232	return false;
	233	}
	234
	235	template<typename T>
	236	inline bool Get( const std::string& key, T& value ) {
	237	return Get(aiString(key), value);
	238	}
	239
	240	#endif // __cplusplus
	241
	242	};
	243
	244	#endif // __AI_METADATA_H_INC__
	245
	246

+25

-23

include/assimp/postprocess.h less more

53	53	/** @enum aiPostProcessSteps
54	54	* @brief Defines the flags for all possible post processing steps.
55	55	*
56		* @see Importer::ReadFile
	56	* @note Some steps are influenced by properties set on the Assimp::Importer itself
	57	*
	58	* @see Assimp::Importer::ReadFile()
	59	* @see Assimp::Importer::SetPropertyInteger()
57	60	* @see aiImportFile
58	61	* @see aiImportFileEx
59	62	*/

66	69	*
67	70	* Does nothing if a mesh does not have normals. You might want this post
68	71	* processing step to be executed if you plan to use tangent space calculations
69		* such as normal mapping applied to the meshes. There's a config setting,
	72	* such as normal mapping applied to the meshes. There's an importer property,
70	73	* <tt>#AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE</tt>, which allows you to specify
71	74	* a maximum smoothing angle for the algorithm. However, usually you'll
72	75	* want to leave it at the default value.

113	116	* solution:
114	117	* <ul>
115	118	* <li>Specify both #aiProcess_Triangulate and #aiProcess_SortByPType </li>
116		* </li>Ignore all point and line meshes when you process assimp's output</li>
	119	* <li>Ignore all point and line meshes when you process assimp's output</li>
117	120	* </ul>
118	121	*/
119	122	aiProcess_Triangulate = 0x8,

123	126	* light sources, cameras, textures, vertex components).
124	127	*
125	128	* The components to be removed are specified in a separate
126		* configuration option, <tt>#AI_CONFIG_PP_RVC_FLAGS</tt>. This is quite useful
	129	* importer property, <tt>#AI_CONFIG_PP_RVC_FLAGS</tt>. This is quite useful
127	130	* if you don't need all parts of the output structure. Vertex colors
128	131	* are rarely used today for example... Calling this step to remove unneeded
129	132	* data from the pipeline as early as possible results in increased

166	169	* they're usually already there.
167	170	*
168	171	* This flag may not be specified together with
169		* #aiProcess_GenNormals. There's a configuration option,
	172	* #aiProcess_GenNormals. There's a importer property,
170	173	* <tt>#AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE</tt> which allows you to specify
171	174	* an angle maximum for the normal smoothing algorithm. Normals exceeding
172	175	* this limit are not smoothed, resulting in a 'hard' seam between two faces.

186	189	*
187	190	* The split limits can (and should!) be set through the
188	191	* <tt>#AI_CONFIG_PP_SLM_VERTEX_LIMIT</tt> and <tt>#AI_CONFIG_PP_SLM_TRIANGLE_LIMIT</tt>
189		* settings. The default values are <tt>#AI_SLM_DEFAULT_MAX_VERTICES</tt> and
	192	* importer properties. The default values are <tt>#AI_SLM_DEFAULT_MAX_VERTICES</tt> and
190	193	* <tt>#AI_SLM_DEFAULT_MAX_TRIANGLES</tt>.
191	194	*
192	195	* Note that splitting is generally a time-consuming task, but only if there's

223	226	* important vertex weights are removed and the remaining vertex weights are
224	227	* renormalized so that the weights still sum up to 1.
225	228	* The default bone weight limit is 4 (defined as <tt>#AI_LMW_MAX_WEIGHTS</tt> in
226		* config.h), but you can use the <tt>#AI_CONFIG_PP_LBW_MAX_WEIGHTS</tt> setting to
227		* supply your own limit to the post processing step.
	229	* config.h), but you can use the <tt>#AI_CONFIG_PP_LBW_MAX_WEIGHTS</tt> importer
	230	* property to supply your own limit to the post processing step.
228	231	*
229	232	* If you intend to perform the skinning in hardware, this post processing
230	233	* step might be of interest to you.

269	272	* paper</a>).
270	273	*
271	274	* If you intend to render huge models in hardware, this step might
272		* be of interest to you. The <tt>#AI_CONFIG_PP_ICL_PTCACHE_SIZE</tt>config
273		* setting can be used to fine-tune the cache optimization.
	275	* be of interest to you. The <tt>#AI_CONFIG_PP_ICL_PTCACHE_SIZE</tt>
	276	* importer property can be used to fine-tune the cache optimization.
274	277	*/
275	278	aiProcess_ImproveCacheLocality = 0x800,
276	279

291	294	* So, if you're passing additional information through the
292	295	* content pipeline (probably using magic material names), don't
293	296	* specify this flag. Alternatively take a look at the
294		* <tt>#AI_CONFIG_PP_RRM_EXCLUDE_LIST</tt> setting.
	297	* <tt>#AI_CONFIG_PP_RRM_EXCLUDE_LIST</tt> importer property.
295	298	*/
296	299	aiProcess_RemoveRedundantMaterials = 0x1000,
297	300

317	320	* returns, just one bit is set in aiMesh::mPrimitiveTypes. This is
318	321	* especially useful for real-time rendering where point and line
319	322	* primitives are often ignored or rendered separately.
320		* You can use the <tt>#AI_CONFIG_PP_SBP_REMOVE</tt> option to specify which
321		* primitive types you need. This can be used to easily exclude
322		* lines and points, which are rarely used, from the import.
	323	* You can use the <tt>#AI_CONFIG_PP_SBP_REMOVE</tt> importer property to
	324	* specify which primitive types you need. This can be used to easily
	325	* exclude lines and points, which are rarely used, from the import.
323	326	*/
324	327	aiProcess_SortByPType = 0x8000,
325	328

335	338	* <ul>
336	339	* <li>Specify the #aiProcess_FindDegenerates flag.
337	340	* </li>
338		* <li>Set the <tt>AI_CONFIG_PP_FD_REMOVE</tt> option to 1. This will
339		* cause the step to remove degenerate triangles from the import
340		* as soon as they're detected. They won't pass any further
	341	* <li>Set the <tt>#AI_CONFIG_PP_FD_REMOVE</tt> importer property to
	342	* 1. This will cause the step to remove degenerate triangles from the
	343	* import as soon as they're detected. They won't pass any further
341	344	* pipeline steps.
342	345	* </li>
343	346	* </ul>

348	351	* <li>Specify the #aiProcess_SortByPType flag. This moves line and
349	352	* point primitives to separate meshes.
350	353	* </li>
351		* <li>Set the <tt>AI_CONFIG_PP_SBP_REMOVE</tt> option to
	354	* <li>Set the <tt>#AI_CONFIG_PP_SBP_REMOVE</tt> importer property to
352	355	* @code aiPrimitiveType_POINTS \| aiPrimitiveType_LINES
353	356	* @endcode to cause SortByPType to reject point
354	357	* and line meshes from the scene.

445	448	*
446	449	* Node names can be lost during this step. If you use special 'tag nodes'
447	450	* to pass additional information through your content pipeline, use the
448		* <tt>#AI_CONFIG_PP_OG_EXCLUDE_LIST</tt> setting to specify a list of node
449		* names you want to be kept. Nodes matching one of the names in this list won't
450		* be touched or modified.
	451	* <tt>#AI_CONFIG_PP_OG_EXCLUDE_LIST</tt> importer property to specify a
	452	* list of node names you want to be kept. Nodes matching one of the names
	453	* in this list won't be touched or modified.
451	454	*
452	455	* Use this flag with caution. Most simple files will be collapsed to a
453	456	* single node, so complex hierarchies are usually completely lost. This is not

619	622	aiProcess_FindInstances \| \
620	623	aiProcess_ValidateDataStructure \| \
621	624	aiProcess_OptimizeMeshes \| \
622		aiProcess_Debone \| \
623	625	0 )
624	626
625	627

627	629	} // end of extern "C"
628	630	#endif
629	631
630		#endif // AI_POSTPROCESS_H_INC⏎
	632	#endif // AI_POSTPROCESS_H_INC

-3

include/assimp/quaternion.h less more

54	54	class aiQuaterniont
55	55	{
56	56	public:
57		aiQuaterniont() : w(), x(), y(), z() {}
58		aiQuaterniont(TReal w, TReal x, TReal y, TReal z)
59		: w(w), x(x), y(y), z(z) {}
	57	aiQuaterniont() : w(1.0), x(), y(), z() {}
	58	aiQuaterniont(TReal pw, TReal px, TReal py, TReal pz)
	59	: w(pw), x(px), y(py), z(pz) {}
60	60
61	61	/** Construct from rotation matrix. Result is undefined if the matrix is not orthonormal. */
62	62	aiQuaterniont( const aiMatrix3x3t<TReal>& pRotMatrix);

77	77
78	78	bool operator== (const aiQuaterniont& o) const;
79	79	bool operator!= (const aiQuaterniont& o) const;
	80
	81	bool Equal(const aiQuaterniont& o, TReal epsilon = 1e-6) const;
80	82
81	83	public:
82	84

+15

-5

include/assimp/quaternion.inl less more

47	47	#ifdef __cplusplus
48	48	#include "quaternion.h"
49	49
	50	#include <cmath>
	51
50	52	// ---------------------------------------------------------------------------
51	53	template<typename TReal>
52	54	bool aiQuaterniont<TReal>::operator== (const aiQuaterniont& o) const

61	63	return !(*this == o);
62	64	}
63	65
64
	66	// ---------------------------------------------------------------------------
	67	template<typename TReal>
	68	inline bool aiQuaterniont<TReal>::Equal(const aiQuaterniont& o, TReal epsilon) const {
	69	return
	70	std::abs(x - o.x) <= epsilon &&
	71	std::abs(y - o.y) <= epsilon &&
	72	std::abs(z - o.z) <= epsilon &&
	73	std::abs(w - o.w) <= epsilon;
	74	}
65	75
66	76	// ---------------------------------------------------------------------------
67	77	// Constructs a quaternion from a rotation matrix
68	78	template<typename TReal>
69	79	inline aiQuaterniont<TReal>::aiQuaterniont( const aiMatrix3x3t<TReal> &pRotMatrix)
70	80	{
71		TReal t = 1 + pRotMatrix.a1 + pRotMatrix.b2 + pRotMatrix.c3;
	81	TReal t = pRotMatrix.a1 + pRotMatrix.b2 + pRotMatrix.c3;
72	82
73	83	// large enough
74		if( t > static_cast<TReal>(0.001))
75		{
76		TReal s = sqrt( t) * static_cast<TReal>(2.0);
	84	if( t > static_cast<TReal>(0))
	85	{
	86	TReal s = sqrt(1 + t) * static_cast<TReal>(2.0);
77	87	x = (pRotMatrix.c2 - pRotMatrix.b3) / s;
78	88	y = (pRotMatrix.a3 - pRotMatrix.c1) / s;
79	89	z = (pRotMatrix.b1 - pRotMatrix.a2) / s;

+75

-25

include/assimp/scene.h less more

51	51	#include "camera.h"
52	52	#include "material.h"
53	53	#include "anim.h"
	54	#include "metadata.h"
54	55
55	56	#ifdef __cplusplus
56	57	extern "C" {
57	58	#endif
	59
58	60
59	61	// -------------------------------------------------------------------------------
60	62	/** A node in the imported hierarchy.

70	72	/** The name of the node.
71	73	*
72	74	* The name might be empty (length of zero) but all nodes which
73		* need to be accessed afterwards by bones or anims are usually named.
74		* Multiple nodes may have the same name, but nodes which are accessed
75		* by bones (see #aiBone and #aiMesh::mBones) must be unique.
	75	* need to be referenced by either bones or animations are named.
	76	* Multiple nodes may have the same name, except for nodes which are referenced
	77	* by bones (see #aiBone and #aiMesh::mBones). Their names must be unique.
76	78	*
77		* Cameras and lights are assigned to a specific node name - if there
78		* are multiple nodes with this name, they're assigned to each of them.
	79	* Cameras and lights reference a specific node by name - if there
	80	* are multiple nodes with this name, they are assigned to each of them.
79	81	* <br>
80		* There are no limitations regarding the characters contained in
81		* this text. You should be able to handle stuff like whitespace, tabs,
82		* linefeeds, quotation marks, ampersands, ... .
	82	* There are no limitations with regard to the characters contained in
	83	* the name string as it is usually taken directly from the source file.
	84	*
	85	* Implementations should be able to handle tokens such as whitespace, tabs,
	86	* line feeds, quotation marks, ampersands etc.
	87	*
	88	* Sometimes assimp introduces new nodes not present in the source file
	89	* into the hierarchy (usually out of necessity because sometimes the
	90	* source hierarchy format is simply not compatible). Their names are
	91	* surrounded by @verbatim <> @endverbatim e.g.
	92	* @verbatim<DummyRootNode> @endverbatim.
83	93	*/
84	94	C_STRUCT aiString mName;
85	95

100	110
101	111	/** The meshes of this node. Each entry is an index into the mesh */
102	112	unsigned int* mMeshes;
	113
	114	/** Metadata associated with this node or NULL if there is no metadata.
	115	* Whether any metadata is generated depends on the source file format. See the
	116	* @link importer_notes @endlink page for more information on every source file
	117	* format. Importers that don't document any metadata don't write any.
	118	*/
	119	C_STRUCT aiMetadata* mMetaData;
103	120
104	121	#ifdef __cplusplus
105	122	/** Constructor */
106	123	aiNode()
107		{
108	124	// set all members to zero by default
109		mParent = NULL;
110		mNumChildren = 0; mChildren = NULL;
111		mNumMeshes = 0; mMeshes = NULL;
112		}
	125	: mName("")
	126	, mParent(NULL)
	127	, mNumChildren(0)
	128	, mChildren(NULL)
	129	, mNumMeshes(0)
	130	, mMeshes(NULL)
	131	, mMetaData(NULL)
	132	{
	133	}
	134
113	135
114	136	/** Construction from a specific name */
115	137	aiNode(const std::string& name)
116		{
117	138	// set all members to zero by default
118		mParent = NULL;
119		mNumChildren = 0; mChildren = NULL;
120		mNumMeshes = 0; mMeshes = NULL;
121		mName = name;
	139	: mName(name)
	140	, mParent(NULL)
	141	, mNumChildren(0)
	142	, mChildren(NULL)
	143	, mNumMeshes(0)
	144	, mMeshes(NULL)
	145	, mMetaData(NULL)
	146	{
122	147	}
123	148
124	149	/** Destructor */

133	158	}
134	159	delete [] mChildren;
135	160	delete [] mMeshes;
136		}
	161	delete mMetaData;
	162	}
	163
137	164
138	165	/** Searches for a node with a specific name, beginning at this
139	166	* nodes. Normally you will call this method on the root node

142	169	* @param name Name to search for
143	170	* @return NULL or a valid Node if the search was successful.
144	171	*/
	172	inline const aiNode* FindNode(const aiString& name) const
	173	{
	174	return FindNode(name.data);
	175	}
	176
	177
145	178	inline aiNode* FindNode(const aiString& name)
146	179	{
147	180	return FindNode(name.data);
148	181	}
	182
149	183
150	184	/** @override
151	185	*/
152		inline aiNode* FindNode(const char* name)
	186	inline const aiNode* FindNode(const char* name) const
153	187	{
154	188	if (!::strcmp( mName.data,name))return this;
155	189	for (unsigned int i = 0; i < mNumChildren;++i)
156	190	{
157		aiNode* p = mChildren[i]->FindNode(name);
158		if (p)return p;
	191	const aiNode* const p = mChildren[i]->FindNode(name);
	192	if (p) {
	193	return p;
	194	}
159	195	}
160		// there is definitely no sub node with this name
	196	// there is definitely no sub-node with this name
	197	return NULL;
	198	}
	199
	200	inline aiNode* FindNode(const char* name)
	201	{
	202	if (!::strcmp( mName.data,name))return this;
	203	for (unsigned int i = 0; i < mNumChildren;++i)
	204	{
	205	aiNode* const p = mChildren[i]->FindNode(name);
	206	if (p) {
	207	return p;
	208	}
	209	}
	210	// there is definitely no sub-node with this name
161	211	return NULL;
162	212	}
163	213

327	377	#ifdef __cplusplus
328	378
329	379	//! Default constructor - set everything to 0/NULL
330		aiScene();
	380	ASSIMP_API aiScene();
331	381
332	382	//! Destructor
333		~aiScene();
	383	ASSIMP_API ~aiScene();
334	384
335	385	//! Check whether the scene contains meshes
336	386	//! Unless no special scene flags are set this will always be true.

+19

-6

include/assimp/types.h less more

49	49	#include <memory.h>
50	50	#include <math.h>
51	51	#include <stddef.h>
	52	#include <string.h>
	53	#include <limits.h>
52	54
53	55	// Our compile configuration
54	56	#include "defs.h"

62	64	#include "quaternion.h"
63	65
64	66	#ifdef __cplusplus
	67	#include <cstring>
65	68	#include <new> // for std::nothrow_t
66	69	#include <string> // for aiString::Set(const std::string&)
67	70

170	173	bool operator != (const aiColor3D& other) const
171	174	{return r != other.r \|\| g != other.g \|\| b != other.b;}
172	175
	176	/** Component-wise comparison */
	177	// TODO: add epsilon?
	178	bool operator < (const aiColor3D& other) const {
	179	return r < other.r \|\| (
	180	r == other.r && (g < other.g \|\|
	181	(g == other.g && b < other.b)
	182	)
	183	);
	184	}
	185
173	186	/** Component-wise addition */
174	187	aiColor3D operator+(const aiColor3D& c) const {
175	188	return aiColor3D(r+c.r,g+c.g,b+c.b);

177	190
178	191	/** Component-wise subtraction */
179	192	aiColor3D operator-(const aiColor3D& c) const {
180		return aiColor3D(r+c.r,g+c.g,b+c.b);
	193	return aiColor3D(r-c.r,g-c.g,b-c.b);
181	194	}
182	195
183	196	/** Component-wise multiplication */

243	256	{
244	257	data[0] = '\0';
245	258
246		#ifdef _DEBUG
	259	#ifdef ASSIMP_BUILD_DEBUG
247	260	// Debug build: overwrite the string on its full length with ESC (27)
248	261	memset(data+1,27,MAXLEN-1);
249	262	#endif

313	326
314	327	/** Append a string to the string */
315	328	void Append (const char* app) {
316		const size_t len = strlen(app);
	329	const size_t len = ::strlen(app);
317	330	if (!len) {
318	331	return;
319	332	}

330	343	length = 0;
331	344	data[0] = '\0';
332	345
333		#ifdef _DEBUG
	346	#ifdef ASSIMP_BUILD_DEBUG
334	347	// Debug build: overwrite the string on its full length with ESC (27)
335	348	memset(data+1,27,MAXLEN-1);
336	349	#endif

357	370	/** Standard return type for some library functions.
358	371	* Rarely used, and if, mostly in the C API.
359	372	*/
360		enum aiReturn
	373	typedef enum aiReturn
361	374	{
362	375	/** Indicates that a function was successful */
363	376	aiReturn_SUCCESS = 0x0,

374	387	* Force 32-bit size enum
375	388	*/
376	389	_AI_ENFORCE_ENUM_SIZE = 0x7fffffff
377		}; // !enum aiReturn
	390	} aiReturn; // !enum aiReturn
378	391
379	392	// just for backwards compatibility, don't use these constants anymore
380	393	#define AI_SUCCESS aiReturn_SUCCESS

-3

include/assimp/vector2.h less more

42	42	*/
43	43	#ifndef AI_VECTOR2D_H_INC
44	44	#define AI_VECTOR2D_H_INC
45
46		#include <math.h>
47
	45
	46	#ifdef __cplusplus
	47	# include <cmath>
	48	#else
	49	# include <math.h>
	50	#endif
	51
48	52	#include "./Compiler/pushpack1.h"
49	53
50	54	// ----------------------------------------------------------------------------------

82	86	bool operator== (const aiVector2t& other) const;
83	87	bool operator!= (const aiVector2t& other) const;
84	88
	89	bool Equal(const aiVector2t& other, TReal epsilon = 1e-6) const;
	90
85	91	aiVector2t& operator= (TReal f);
86	92	const aiVector2t SymMul(const aiVector2t& o);
87	93

+10

-0

include/assimp/vector2.inl less more

47	47	#ifdef __cplusplus
48	48	#include "vector2.h"
49	49
	50	#include <cmath>
	51
50	52	// ------------------------------------------------------------------------------------------------
51	53	template <typename TReal>
52	54	template <typename TOther>

130	132	return x != other.x \|\| y != other.y;
131	133	}
132	134
	135	// ---------------------------------------------------------------------------
	136	template<typename TReal>
	137	bool aiVector2t<TReal>::Equal(const aiVector2t& other, TReal epsilon) const {
	138	return
	139	std::abs(x - other.x) <= epsilon &&
	140	std::abs(y - other.y) <= epsilon;
	141	}
	142
133	143	// ------------------------------------------------------------------------------------------------
134	144	template <typename TReal>
135	145	aiVector2t<TReal>& aiVector2t<TReal>::operator= (TReal f) {

+10

-4

include/assimp/vector3.h less more

42	42	*/
43	43	#ifndef AI_VECTOR3D_H_INC
44	44	#define AI_VECTOR3D_H_INC
45
46		#include <math.h>
47
48
	45
	46	#ifdef __cplusplus
	47	# include <cmath>
	48	#else
	49	# include <math.h>
	50	#endif
	51
49	52	#include "./Compiler/pushpack1.h"
50	53
51	54	#ifdef __cplusplus

84	87	// comparison
85	88	bool operator== (const aiVector3t& other) const;
86	89	bool operator!= (const aiVector3t& other) const;
	90	bool operator < (const aiVector3t& other) const;
	91
	92	bool Equal(const aiVector3t& other, TReal epsilon = 1e-6) const;
87	93
88	94	template <typename TOther>
89	95	operator aiVector3t<TOther> () const;

+17

-1

include/assimp/vector3.inl less more

47	47	#ifdef __cplusplus
48	48	#include "vector3.h"
49	49
	50	#include <cmath>
	51
50	52	// ------------------------------------------------------------------------------------------------
51	53	/** Transformation of a vector by a 3x3 matrix */
52	54	template <typename TReal>

89	91	// ------------------------------------------------------------------------------------------------
90	92	template <typename TReal>
91	93	AI_FORCE_INLINE TReal aiVector3t<TReal>::Length() const {
92		return sqrt( SquareLength());
	94	return ::sqrt( SquareLength());
93	95	}
94	96	// ------------------------------------------------------------------------------------------------
95	97	template <typename TReal>

146	148	AI_FORCE_INLINE bool aiVector3t<TReal>::operator!= (const aiVector3t<TReal>& other) const {
147	149	return x != other.x \|\| y != other.y \|\| z != other.z;
148	150	}
	151	// ---------------------------------------------------------------------------
	152	template<typename TReal>
	153	AI_FORCE_INLINE bool aiVector3t<TReal>::Equal(const aiVector3t<TReal>& other, TReal epsilon) const {
	154	return
	155	std::abs(x - other.x) <= epsilon &&
	156	std::abs(y - other.y) <= epsilon &&
	157	std::abs(z - other.z) <= epsilon;
	158	}
	159	// ------------------------------------------------------------------------------------------------
	160	template <typename TReal>
	161	AI_FORCE_INLINE bool aiVector3t<TReal>::operator < (const aiVector3t<TReal>& other) const {
	162	return x != other.x ? x < other.x : y != other.y ? y < other.y : z < other.z;
	163	}
149	164	// ------------------------------------------------------------------------------------------------
150	165	template <typename TReal>
151	166	AI_FORCE_INLINE const aiVector3t<TReal> aiVector3t<TReal>::SymMul(const aiVector3t<TReal>& o) {

206	221	return aiVector3t<TReal>( -v.x, -v.y, -v.z);
207	222	}
208	223
	224	// ------------------------------------------------------------------------------------------------
209	225
210	226	#endif // __cplusplus
211	227	#endif // AI_VECTOR3D_INL_INC

-2

include/assimp/version.h less more

73	73	// ---------------------------------------------------------------------------
74	74	/** @brief Returns the repository revision of the Assimp runtime.
75	75	* @return SVN Repository revision number of the Assimp runtime the
76		* application was linked/built against
	76	* application was linked/built against.
77	77	*/
78	78	ASSIMP_API unsigned int aiGetVersionRevision (void);
79
80	79
81	80	//! Assimp was compiled as a shared object (Windows: DLL)
82	81	#define ASSIMP_CFLAGS_SHARED 0x1

+58

-47

port/Assimp.NET/Assimp.NET/AssimpSwigPort.i less more

42	42	%include "carrays.i"
43	43	%include "typemaps.i"
44	44	%{
45		#include "..\..\..\include\aiDefines.h"
46		#include "..\..\..\include\aiConfig.h"
47		#include "..\..\..\include\aiTypes.h"
48		#include "..\..\..\include\aiVersion.h"
49		#include "..\..\..\include\aiPostProcess.h"
50		#include "..\..\..\include\aiVector2D.h"
51		#include "..\..\..\include\aiVector3D.h"
52		#include "..\..\..\include\aiColor4D.h"
53		#include "..\..\..\include\aiMatrix3x3.h"
54		#include "..\..\..\include\aiMatrix4x4.h"
55		#include "..\..\..\include\aiCamera.h"
56		#include "..\..\..\include\aiLight.h"
57		#include "..\..\..\include\aiAnim.h"
58		#include "..\..\..\include\aiMesh.h"
59		#include "..\..\..\include\aiFileIO.h"
60		#include "..\..\..\include\aiMaterial.h"
61		#include "..\..\..\include\aiQuaternion.h"
62		#include "..\..\..\include\aiScene.h"
63		#include "..\..\..\include\aiTexture.h"
64		#include "..\..\..\include\assimp.hpp"
65		#include "..\..\..\include\IOSystem.h"
66		#include "..\..\..\include\IOStream.h"
67		#include "..\..\..\include\Logger.h"
68		#include "..\..\..\include\LogStream.h"
69		#include "..\..\..\include\NullLogger.h"
70		#include "..\..\..\include\ProgressHandler.h"
	45	#include "..\..\..\include\assimp\defs.h"
	46	#include "..\..\..\include\assimp\config.h"
	47	#include "..\..\..\include\assimp\types.h"
	48	#include "..\..\..\include\assimp\version.h"
	49	#include "..\..\..\include\assimp\postprocess.h"
	50	#include "..\..\..\include\assimp\vector2.h"
	51	#include "..\..\..\include\assimp\vector3.h"
	52	#include "..\..\..\include\assimp\color4.h"
	53	#include "..\..\..\include\assimp\matrix3x3.h"
	54	#include "..\..\..\include\assimp\matrix4x4.h"
	55	#include "..\..\..\include\assimp\camera.h"
	56	#include "..\..\..\include\assimp\light.h"
	57	#include "..\..\..\include\assimp\anim.h"
	58	#include "..\..\..\include\assimp\mesh.h"
	59	#include "..\..\..\include\assimp\cfileio.h"
	60	#include "..\..\..\include\assimp\material.h"
	61	#include "..\..\..\include\assimp\quaternion.h"
	62	#include "..\..\..\include\assimp\scene.h"
	63	#include "..\..\..\include\assimp\texture.h"
	64	#include "..\..\..\include\assimp\Importer.hpp"
	65	#include "..\..\..\include\assimp\IOSystem.hpp"
	66	#include "..\..\..\include\assimp\IOStream.hpp"
	67	#include "..\..\..\include\assimp\Logger.hpp"
	68	#include "..\..\..\include\assimp\LogStream.hpp"
	69	#include "..\..\..\include\assimp\NullLogger.hpp"
	70	#include "..\..\..\include\assimp\ProgressHandler.hpp"
71	71	%}
72	72
73	73	#define C_STRUCT
74	74	#define C_ENUM
75	75	#define ASSIMP_API
76	76	#define PACK_STRUCT
	77	#define AI_FORCE_INLINE
77	78
78	79	%rename(__add__) operator+;
79	80	%rename(__addnset__) operator+=;

503	504	%ignore ::aiGetMaterialTexture;
504	505
505	506
506		%include "..\..\..\include\aiDefines.h"
507		%include "..\..\..\include\aiConfig.h"
508		%include "..\..\..\include\aiTypes.h"
509		%include "..\..\..\include\aiVersion.h"
510		%include "..\..\..\include\aiPostProcess.h"
511		%include "..\..\..\include\aiVector2D.h"
512		%include "..\..\..\include\aiVector3D.h"
513		%include "..\..\..\include\aiColor4D.h"
514		%include "..\..\..\include\aiMatrix3x3.h"
515		%include "..\..\..\include\aiMatrix4x4.h"
516		%include "..\..\..\include\aiCamera.h"
517		%include "..\..\..\include\aiLight.h"
518		%include "..\..\..\include\aiAnim.h"
519		%include "..\..\..\include\aiMesh.h"
520		%include "..\..\..\include\aiFileIO.h"
521		%include "..\..\..\include\aiMaterial.h"
522		%include "..\..\..\include\aiQuaternion.h"
523		%include "..\..\..\include\aiScene.h"
524		%include "..\..\..\include\aiTexture.h"
525		%include "..\..\..\include\assimp.hpp"
526		%include "..\..\..\include\ProgressHandler.h"
	507	%include "..\..\..\include\assimp\defs.h"
	508	%include "..\..\..\include\assimp\config.h"
	509	%include "..\..\..\include\assimp\types.h"
	510	%include "..\..\..\include\assimp\version.h"
	511	%include "..\..\..\include\assimp\postprocess.h"
	512	%include "..\..\..\include\assimp\vector2.h"
	513	%include "..\..\..\include\assimp\vector3.h"
	514	%include "..\..\..\include\assimp\color4.h"
	515	%include "..\..\..\include\assimp\matrix3x3.h"
	516	%include "..\..\..\include\assimp\matrix4x4.h"
	517	%include "..\..\..\include\assimp\camera.h"
	518	%include "..\..\..\include\assimp\light.h"
	519	%include "..\..\..\include\assimp\anim.h"
	520	%include "..\..\..\include\assimp\mesh.h"
	521	%include "..\..\..\include\assimp\cfileio.h"
	522	%include "..\..\..\include\assimp\material.h"
	523	%include "..\..\..\include\assimp\quaternion.h"
	524	%include "..\..\..\include\assimp\scene.h"
	525	%include "..\..\..\include\assimp\texture.h"
	526	%include "..\..\..\include\assimp\Importer.hpp"
	527	%include "..\..\..\include\assimp\ProgressHandler.hpp"
527	528	//%include "..\..\..\include\IOSystem.h"
528	529	//%include "..\..\..\include\IOStream.h"
529	530	//%include "..\..\..\include\Logger.h"
530	531	//%include "..\..\..\include\LogStream.h"
531	532	//%include "..\..\..\include\NullLogger.h"
	533
	534
	535	%template(aiColor4D) aiColor4t<float>;
	536
	537	%template(aiVector3D) aiVector3t<float>;
	538	%template(aiVector2D) aiVector2t<float>;
	539
	540	%template(aiQuaternion) aiQuaterniont<float>;
	541	%template(aiMatrix3x3) aiMatrix3x3t<float>;
	542	%template(aiMatrix4x4) aiMatrix4x4t<float>;
532	543
533	544	%template(FloatVector) std::vector<float>;
534	545	%template(UintVector) std::vector<unsigned int>;

+6567

-6215

port/Assimp.NET/Assimp.NET/AssimpSwigPort_wrap.cxx less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* This file is not intended to be easily readable and contains a number of
5	5	* coding conventions designed to improve portability and efficiency. Do not make

279	279	#define SWIG_contract_assert(nullreturn, expr, msg) if (!(expr)) {SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, msg, ""); return nullreturn; } else
280	280
281	281
282		#include "..\..\..\include\aiDefines.h"
283		#include "..\..\..\include\aiConfig.h"
284		#include "..\..\..\include\aiTypes.h"
285		#include "..\..\..\include\aiVersion.h"
286		#include "..\..\..\include\aiPostProcess.h"
287		#include "..\..\..\include\aiVector2D.h"
288		#include "..\..\..\include\aiVector3D.h"
289		#include "..\..\..\include\aiColor4D.h"
290		#include "..\..\..\include\aiMatrix3x3.h"
291		#include "..\..\..\include\aiMatrix4x4.h"
292		#include "..\..\..\include\aiCamera.h"
293		#include "..\..\..\include\aiLight.h"
294		#include "..\..\..\include\aiAnim.h"
295		#include "..\..\..\include\aiMesh.h"
296		#include "..\..\..\include\aiFileIO.h"
297		#include "..\..\..\include\aiMaterial.h"
298		#include "..\..\..\include\aiQuaternion.h"
299		#include "..\..\..\include\aiScene.h"
300		#include "..\..\..\include\aiTexture.h"
301		#include "..\..\..\include\assimp.hpp"
302		#include "..\..\..\include\IOSystem.h"
303		#include "..\..\..\include\IOStream.h"
304		#include "..\..\..\include\Logger.h"
305		#include "..\..\..\include\LogStream.h"
306		#include "..\..\..\include\NullLogger.h"
307		#include "..\..\..\include\ProgressHandler.h"
	282	#include "..\..\..\include\assimp\defs.h"
	283	#include "..\..\..\include\assimp\config.h"
	284	#include "..\..\..\include\assimp\types.h"
	285	#include "..\..\..\include\assimp\version.h"
	286	#include "..\..\..\include\assimp\postprocess.h"
	287	#include "..\..\..\include\assimp\vector2.h"
	288	#include "..\..\..\include\assimp\vector3.h"
	289	#include "..\..\..\include\assimp\color4.h"
	290	#include "..\..\..\include\assimp\matrix3x3.h"
	291	#include "..\..\..\include\assimp\matrix4x4.h"
	292	#include "..\..\..\include\assimp\camera.h"
	293	#include "..\..\..\include\assimp\light.h"
	294	#include "..\..\..\include\assimp\anim.h"
	295	#include "..\..\..\include\assimp\mesh.h"
	296	#include "..\..\..\include\assimp\cfileio.h"
	297	#include "..\..\..\include\assimp\material.h"
	298	#include "..\..\..\include\assimp\quaternion.h"
	299	#include "..\..\..\include\assimp\scene.h"
	300	#include "..\..\..\include\assimp\texture.h"
	301	#include "..\..\..\include\assimp\Importer.hpp"
	302	#include "..\..\..\include\assimp\IOSystem.hpp"
	303	#include "..\..\..\include\assimp\IOStream.hpp"
	304	#include "..\..\..\include\assimp\Logger.hpp"
	305	#include "..\..\..\include\assimp\LogStream.hpp"
	306	#include "..\..\..\include\assimp\NullLogger.hpp"
	307	#include "..\..\..\include\assimp\ProgressHandler.hpp"
308	308
309	309
310	310	#include <string>

1431	1431	return false;
1432	1432	}
1433	1433	SWIGINTERN std::vector< std::vector< aiColor4D * > > *new_std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg___SWIG_2(int capacity){
1434		std::vector< std::vector< aiColor4D * > >* pv = 0;
	1434	std::vector< std::vector< aiColor4t< float > * > >* pv = 0;
1435	1435	if (capacity >= 0) {
1436		pv = new std::vector< std::vector< aiColor4D * > >();
	1436	pv = new std::vector< std::vector< aiColor4t< float > * > >();
1437	1437	pv->reserve(capacity);
1438	1438	} else {
1439	1439	throw std::out_of_range("capacity");
1440	1440	}
1441	1441	return pv;
1442	1442	}
1443		SWIGINTERN std::vector< aiColor4D * > std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__getitemcopy(std::vector< std::vector< aiColor4D * > > *self,int index){
	1443	SWIGINTERN std::vector< aiColor4t< float > * > std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__getitemcopy(std::vector< std::vector< aiColor4D * > > *self,int index){
1444	1444	if (index>=0 && index<(int)self->size())
1445	1445	return (*self)[index];
1446	1446	else
1447	1447	throw std::out_of_range("index");
1448	1448	}
1449		SWIGINTERN std::vector< std::vector< aiColor4D * > >::const_reference std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__getitem(std::vector< std::vector< aiColor4D * > > *self,int index){
	1449	SWIGINTERN std::vector< std::vector< aiColor4t< float > * > >::const_reference std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__getitem(std::vector< std::vector< aiColor4D * > > *self,int index){
1450	1450	if (index>=0 && index<(int)self->size())
1451	1451	return (*self)[index];
1452	1452	else
1453	1453	throw std::out_of_range("index");
1454	1454	}
1455		SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__setitem(std::vector< std::vector< aiColor4D * > > self,int index,std::vector< aiColor4D > const &val){
	1455	SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__setitem(std::vector< std::vector< aiColor4D * > > self,int index,std::vector< aiColor4t< float > > const &val){
1456	1456	if (index>=0 && index<(int)self->size())
1457	1457	(*self)[index] = val;
1458	1458	else
1459	1459	throw std::out_of_range("index");
1460	1460	}
1461		SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__AddRange(std::vector< std::vector< aiColor4D * > > self,std::vector< std::vector< aiColor4D > > const &values){
	1461	SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__AddRange(std::vector< std::vector< aiColor4D * > > self,std::vector< std::vector< aiColor4t< float > > > const &values){
1462	1462	self->insert(self->end(), values.begin(), values.end());
1463	1463	}
1464		SWIGINTERN std::vector< std::vector< aiColor4D * > > std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__GetRange(std::vector< std::vector< aiColor4D > > *self,int index,int count){
	1464	SWIGINTERN std::vector< std::vector< aiColor4t< float > * > > std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__GetRange(std::vector< std::vector< aiColor4D > > *self,int index,int count){
1465	1465	if (index < 0)
1466	1466	throw std::out_of_range("index");
1467	1467	if (count < 0)
1468	1468	throw std::out_of_range("count");
1469	1469	if (index >= (int)self->size()+1 \|\| index+count > (int)self->size())
1470	1470	throw std::invalid_argument("invalid range");
1471		return new std::vector< std::vector< aiColor4D * > >(self->begin()+index, self->begin()+index+count);
1472		}
1473		SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Insert(std::vector< std::vector< aiColor4D * > > self,int index,std::vector< aiColor4D > const &x){
	1471	return new std::vector< std::vector< aiColor4t< float > * > >(self->begin()+index, self->begin()+index+count);
	1472	}
	1473	SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Insert(std::vector< std::vector< aiColor4D * > > self,int index,std::vector< aiColor4t< float > > const &x){
1474	1474	if (index>=0 && index<(int)self->size()+1)
1475	1475	self->insert(self->begin()+index, x);
1476	1476	else
1477	1477	throw std::out_of_range("index");
1478	1478	}
1479		SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__InsertRange(std::vector< std::vector< aiColor4D * > > self,int index,std::vector< std::vector< aiColor4D > > const &values){
	1479	SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__InsertRange(std::vector< std::vector< aiColor4D * > > self,int index,std::vector< std::vector< aiColor4t< float > > > const &values){
1480	1480	if (index>=0 && index<(int)self->size()+1)
1481	1481	self->insert(self->begin()+index, values.begin(), values.end());
1482	1482	else

1497	1497	throw std::invalid_argument("invalid range");
1498	1498	self->erase(self->begin()+index, self->begin()+index+count);
1499	1499	}
1500		SWIGINTERN std::vector< std::vector< aiColor4D * > > std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Repeat(std::vector< aiColor4D > const &value,int count){
	1500	SWIGINTERN std::vector< std::vector< aiColor4t< float > * > > std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Repeat(std::vector< aiColor4t< float > > const &value,int count){
1501	1501	if (count < 0)
1502	1502	throw std::out_of_range("count");
1503		return new std::vector< std::vector< aiColor4D * > >(count, value);
	1503	return new std::vector< std::vector< aiColor4t< float > * > >(count, value);
1504	1504	}
1505	1505	SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Reverse__SWIG_0(std::vector< std::vector< aiColor4D * > > *self){
1506	1506	std::reverse(self->begin(), self->end());

1514	1514	throw std::invalid_argument("invalid range");
1515	1515	std::reverse(self->begin()+index, self->begin()+index+count);
1516	1516	}
1517		SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__SetRange(std::vector< std::vector< aiColor4D * > > self,int index,std::vector< std::vector< aiColor4D > > const &values){
	1517	SWIGINTERN void std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__SetRange(std::vector< std::vector< aiColor4D * > > self,int index,std::vector< std::vector< aiColor4t< float > > > const &values){
1518	1518	if (index < 0)
1519	1519	throw std::out_of_range("index");
1520	1520	if (index+values.size() > self->size())

1522	1522	std::copy(values.begin(), values.end(), self->begin()+index);
1523	1523	}
1524	1524	SWIGINTERN std::vector< aiColor4D * > *new_std_vector_Sl_aiColor4D_Sm__Sg___SWIG_2(int capacity){
1525		std::vector< aiColor4D * >* pv = 0;
	1525	std::vector< aiColor4t< float > * >* pv = 0;
1526	1526	if (capacity >= 0) {
1527		pv = new std::vector< aiColor4D * >();
	1527	pv = new std::vector< aiColor4t< float > * >();
1528	1528	pv->reserve(capacity);
1529	1529	} else {
1530	1530	throw std::out_of_range("capacity");
1531	1531	}
1532	1532	return pv;
1533	1533	}
1534		SWIGINTERN aiColor4D std_vector_Sl_aiColor4D_Sm__Sg__getitemcopy(std::vector< aiColor4D > *self,int index){
	1534	SWIGINTERN aiColor4t< float > std_vector_Sl_aiColor4D_Sm__Sg__getitemcopy(std::vector< aiColor4D > *self,int index){
1535	1535	if (index>=0 && index<(int)self->size())
1536	1536	return (*self)[index];
1537	1537	else
1538	1538	throw std::out_of_range("index");
1539	1539	}
1540		SWIGINTERN std::vector< aiColor4D * >::const_reference std_vector_Sl_aiColor4D_Sm__Sg__getitem(std::vector< aiColor4D * > *self,int index){
	1540	SWIGINTERN std::vector< aiColor4t< float > * >::const_reference std_vector_Sl_aiColor4D_Sm__Sg__getitem(std::vector< aiColor4D * > *self,int index){
1541	1541	if (index>=0 && index<(int)self->size())
1542	1542	return (*self)[index];
1543	1543	else
1544	1544	throw std::out_of_range("index");
1545	1545	}
1546		SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__setitem(std::vector< aiColor4D * > self,int index,aiColor4D const &val){
	1546	SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__setitem(std::vector< aiColor4D * > self,int index,aiColor4t< float > const &val){
1547	1547	if (index>=0 && index<(int)self->size())
1548	1548	(*self)[index] = val;
1549	1549	else
1550	1550	throw std::out_of_range("index");
1551	1551	}
1552		SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__AddRange(std::vector< aiColor4D * > self,std::vector< aiColor4D > const &values){
	1552	SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__AddRange(std::vector< aiColor4D * > self,std::vector< aiColor4t< float > > const &values){
1553	1553	self->insert(self->end(), values.begin(), values.end());
1554	1554	}
1555		SWIGINTERN std::vector< aiColor4D * > std_vector_Sl_aiColor4D_Sm__Sg__GetRange(std::vector< aiColor4D > *self,int index,int count){
	1555	SWIGINTERN std::vector< aiColor4t< float > * > std_vector_Sl_aiColor4D_Sm__Sg__GetRange(std::vector< aiColor4D > *self,int index,int count){
1556	1556	if (index < 0)
1557	1557	throw std::out_of_range("index");
1558	1558	if (count < 0)
1559	1559	throw std::out_of_range("count");
1560	1560	if (index >= (int)self->size()+1 \|\| index+count > (int)self->size())
1561	1561	throw std::invalid_argument("invalid range");
1562		return new std::vector< aiColor4D * >(self->begin()+index, self->begin()+index+count);
1563		}
1564		SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__Insert(std::vector< aiColor4D * > self,int index,aiColor4D const &x){
	1562	return new std::vector< aiColor4t< float > * >(self->begin()+index, self->begin()+index+count);
	1563	}
	1564	SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__Insert(std::vector< aiColor4D * > self,int index,aiColor4t< float > const &x){
1565	1565	if (index>=0 && index<(int)self->size()+1)
1566	1566	self->insert(self->begin()+index, x);
1567	1567	else
1568	1568	throw std::out_of_range("index");
1569	1569	}
1570		SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__InsertRange(std::vector< aiColor4D * > self,int index,std::vector< aiColor4D > const &values){
	1570	SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__InsertRange(std::vector< aiColor4D * > self,int index,std::vector< aiColor4t< float > > const &values){
1571	1571	if (index>=0 && index<(int)self->size()+1)
1572	1572	self->insert(self->begin()+index, values.begin(), values.end());
1573	1573	else

1588	1588	throw std::invalid_argument("invalid range");
1589	1589	self->erase(self->begin()+index, self->begin()+index+count);
1590	1590	}
1591		SWIGINTERN std::vector< aiColor4D * > std_vector_Sl_aiColor4D_Sm__Sg__Repeat(aiColor4D const &value,int count){
	1591	SWIGINTERN std::vector< aiColor4t< float > * > std_vector_Sl_aiColor4D_Sm__Sg__Repeat(aiColor4t< float > const &value,int count){
1592	1592	if (count < 0)
1593	1593	throw std::out_of_range("count");
1594		return new std::vector< aiColor4D * >(count, value);
	1594	return new std::vector< aiColor4t< float > * >(count, value);
1595	1595	}
1596	1596	SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__Reverse__SWIG_0(std::vector< aiColor4D * > *self){
1597	1597	std::reverse(self->begin(), self->end());

1605	1605	throw std::invalid_argument("invalid range");
1606	1606	std::reverse(self->begin()+index, self->begin()+index+count);
1607	1607	}
1608		SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__SetRange(std::vector< aiColor4D * > self,int index,std::vector< aiColor4D > const &values){
	1608	SWIGINTERN void std_vector_Sl_aiColor4D_Sm__Sg__SetRange(std::vector< aiColor4D * > self,int index,std::vector< aiColor4t< float > > const &values){
1609	1609	if (index < 0)
1610	1610	throw std::out_of_range("index");
1611	1611	if (index+values.size() > self->size())
1612	1612	throw std::out_of_range("index");
1613	1613	std::copy(values.begin(), values.end(), self->begin()+index);
1614	1614	}
1615		SWIGINTERN bool std_vector_Sl_aiColor4D_Sm__Sg__Contains(std::vector< aiColor4D * > self,aiColor4D const &value){
	1615	SWIGINTERN bool std_vector_Sl_aiColor4D_Sm__Sg__Contains(std::vector< aiColor4D * > self,aiColor4t< float > const &value){
1616	1616	return std::find(self->begin(), self->end(), value) != self->end();
1617	1617	}
1618		SWIGINTERN int std_vector_Sl_aiColor4D_Sm__Sg__IndexOf(std::vector< aiColor4D * > self,aiColor4D const &value){
	1618	SWIGINTERN int std_vector_Sl_aiColor4D_Sm__Sg__IndexOf(std::vector< aiColor4D * > self,aiColor4t< float > const &value){
1619	1619	int index = -1;
1620		std::vector< aiColor4D * >::iterator it = std::find(self->begin(), self->end(), value);
	1620	std::vector< aiColor4t< float > * >::iterator it = std::find(self->begin(), self->end(), value);
1621	1621	if (it != self->end())
1622	1622	index = (int)(it - self->begin());
1623	1623	return index;
1624	1624	}
1625		SWIGINTERN int std_vector_Sl_aiColor4D_Sm__Sg__LastIndexOf(std::vector< aiColor4D * > self,aiColor4D const &value){
	1625	SWIGINTERN int std_vector_Sl_aiColor4D_Sm__Sg__LastIndexOf(std::vector< aiColor4D * > self,aiColor4t< float > const &value){
1626	1626	int index = -1;
1627		std::vector< aiColor4D * >::reverse_iterator rit = std::find(self->rbegin(), self->rend(), value);
	1627	std::vector< aiColor4t< float > * >::reverse_iterator rit = std::find(self->rbegin(), self->rend(), value);
1628	1628	if (rit != self->rend())
1629	1629	index = (int)(self->rend() - 1 - rit);
1630	1630	return index;
1631	1631	}
1632		SWIGINTERN bool std_vector_Sl_aiColor4D_Sm__Sg__Remove(std::vector< aiColor4D * > self,aiColor4D const &value){
1633		std::vector< aiColor4D * >::iterator it = std::find(self->begin(), self->end(), value);
	1632	SWIGINTERN bool std_vector_Sl_aiColor4D_Sm__Sg__Remove(std::vector< aiColor4D * > self,aiColor4t< float > const &value){
	1633	std::vector< aiColor4t< float > * >::iterator it = std::find(self->begin(), self->end(), value);
1634	1634	if (it != self->end()) {
1635	1635	self->erase(it);
1636	1636	return true;

2798	2798	return false;
2799	2799	}
2800	2800	SWIGINTERN std::vector< aiVector3D * > *new_std_vector_Sl_aiVector3D_Sm__Sg___SWIG_2(int capacity){
2801		std::vector< aiVector3D * >* pv = 0;
	2801	std::vector< aiVector3t< float > * >* pv = 0;
2802	2802	if (capacity >= 0) {
2803		pv = new std::vector< aiVector3D * >();
	2803	pv = new std::vector< aiVector3t< float > * >();
2804	2804	pv->reserve(capacity);
2805	2805	} else {
2806	2806	throw std::out_of_range("capacity");
2807	2807	}
2808	2808	return pv;
2809	2809	}
2810		SWIGINTERN aiVector3D std_vector_Sl_aiVector3D_Sm__Sg__getitemcopy(std::vector< aiVector3D > *self,int index){
	2810	SWIGINTERN aiVector3t< float > std_vector_Sl_aiVector3D_Sm__Sg__getitemcopy(std::vector< aiVector3D > *self,int index){
2811	2811	if (index>=0 && index<(int)self->size())
2812	2812	return (*self)[index];
2813	2813	else
2814	2814	throw std::out_of_range("index");
2815	2815	}
2816		SWIGINTERN std::vector< aiVector3D * >::const_reference std_vector_Sl_aiVector3D_Sm__Sg__getitem(std::vector< aiVector3D * > *self,int index){
	2816	SWIGINTERN std::vector< aiVector3t< float > * >::const_reference std_vector_Sl_aiVector3D_Sm__Sg__getitem(std::vector< aiVector3D * > *self,int index){
2817	2817	if (index>=0 && index<(int)self->size())
2818	2818	return (*self)[index];
2819	2819	else
2820	2820	throw std::out_of_range("index");
2821	2821	}
2822		SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__setitem(std::vector< aiVector3D * > self,int index,aiVector3D const &val){
	2822	SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__setitem(std::vector< aiVector3D * > self,int index,aiVector3t< float > const &val){
2823	2823	if (index>=0 && index<(int)self->size())
2824	2824	(*self)[index] = val;
2825	2825	else
2826	2826	throw std::out_of_range("index");
2827	2827	}
2828		SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__AddRange(std::vector< aiVector3D * > self,std::vector< aiVector3D > const &values){
	2828	SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__AddRange(std::vector< aiVector3D * > self,std::vector< aiVector3t< float > > const &values){
2829	2829	self->insert(self->end(), values.begin(), values.end());
2830	2830	}
2831		SWIGINTERN std::vector< aiVector3D * > std_vector_Sl_aiVector3D_Sm__Sg__GetRange(std::vector< aiVector3D > *self,int index,int count){
	2831	SWIGINTERN std::vector< aiVector3t< float > * > std_vector_Sl_aiVector3D_Sm__Sg__GetRange(std::vector< aiVector3D > *self,int index,int count){
2832	2832	if (index < 0)
2833	2833	throw std::out_of_range("index");
2834	2834	if (count < 0)
2835	2835	throw std::out_of_range("count");
2836	2836	if (index >= (int)self->size()+1 \|\| index+count > (int)self->size())
2837	2837	throw std::invalid_argument("invalid range");
2838		return new std::vector< aiVector3D * >(self->begin()+index, self->begin()+index+count);
2839		}
2840		SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__Insert(std::vector< aiVector3D * > self,int index,aiVector3D const &x){
	2838	return new std::vector< aiVector3t< float > * >(self->begin()+index, self->begin()+index+count);
	2839	}
	2840	SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__Insert(std::vector< aiVector3D * > self,int index,aiVector3t< float > const &x){
2841	2841	if (index>=0 && index<(int)self->size()+1)
2842	2842	self->insert(self->begin()+index, x);
2843	2843	else
2844	2844	throw std::out_of_range("index");
2845	2845	}
2846		SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__InsertRange(std::vector< aiVector3D * > self,int index,std::vector< aiVector3D > const &values){
	2846	SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__InsertRange(std::vector< aiVector3D * > self,int index,std::vector< aiVector3t< float > > const &values){
2847	2847	if (index>=0 && index<(int)self->size()+1)
2848	2848	self->insert(self->begin()+index, values.begin(), values.end());
2849	2849	else

2864	2864	throw std::invalid_argument("invalid range");
2865	2865	self->erase(self->begin()+index, self->begin()+index+count);
2866	2866	}
2867		SWIGINTERN std::vector< aiVector3D * > std_vector_Sl_aiVector3D_Sm__Sg__Repeat(aiVector3D const &value,int count){
	2867	SWIGINTERN std::vector< aiVector3t< float > * > std_vector_Sl_aiVector3D_Sm__Sg__Repeat(aiVector3t< float > const &value,int count){
2868	2868	if (count < 0)
2869	2869	throw std::out_of_range("count");
2870		return new std::vector< aiVector3D * >(count, value);
	2870	return new std::vector< aiVector3t< float > * >(count, value);
2871	2871	}
2872	2872	SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__Reverse__SWIG_0(std::vector< aiVector3D * > *self){
2873	2873	std::reverse(self->begin(), self->end());

2881	2881	throw std::invalid_argument("invalid range");
2882	2882	std::reverse(self->begin()+index, self->begin()+index+count);
2883	2883	}
2884		SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__SetRange(std::vector< aiVector3D * > self,int index,std::vector< aiVector3D > const &values){
	2884	SWIGINTERN void std_vector_Sl_aiVector3D_Sm__Sg__SetRange(std::vector< aiVector3D * > self,int index,std::vector< aiVector3t< float > > const &values){
2885	2885	if (index < 0)
2886	2886	throw std::out_of_range("index");
2887	2887	if (index+values.size() > self->size())
2888	2888	throw std::out_of_range("index");
2889	2889	std::copy(values.begin(), values.end(), self->begin()+index);
2890	2890	}
2891		SWIGINTERN bool std_vector_Sl_aiVector3D_Sm__Sg__Contains(std::vector< aiVector3D * > self,aiVector3D const &value){
	2891	SWIGINTERN bool std_vector_Sl_aiVector3D_Sm__Sg__Contains(std::vector< aiVector3D * > self,aiVector3t< float > const &value){
2892	2892	return std::find(self->begin(), self->end(), value) != self->end();
2893	2893	}
2894		SWIGINTERN int std_vector_Sl_aiVector3D_Sm__Sg__IndexOf(std::vector< aiVector3D * > self,aiVector3D const &value){
	2894	SWIGINTERN int std_vector_Sl_aiVector3D_Sm__Sg__IndexOf(std::vector< aiVector3D * > self,aiVector3t< float > const &value){
2895	2895	int index = -1;
2896		std::vector< aiVector3D * >::iterator it = std::find(self->begin(), self->end(), value);
	2896	std::vector< aiVector3t< float > * >::iterator it = std::find(self->begin(), self->end(), value);
2897	2897	if (it != self->end())
2898	2898	index = (int)(it - self->begin());
2899	2899	return index;
2900	2900	}
2901		SWIGINTERN int std_vector_Sl_aiVector3D_Sm__Sg__LastIndexOf(std::vector< aiVector3D * > self,aiVector3D const &value){
	2901	SWIGINTERN int std_vector_Sl_aiVector3D_Sm__Sg__LastIndexOf(std::vector< aiVector3D * > self,aiVector3t< float > const &value){
2902	2902	int index = -1;
2903		std::vector< aiVector3D * >::reverse_iterator rit = std::find(self->rbegin(), self->rend(), value);
	2903	std::vector< aiVector3t< float > * >::reverse_iterator rit = std::find(self->rbegin(), self->rend(), value);
2904	2904	if (rit != self->rend())
2905	2905	index = (int)(self->rend() - 1 - rit);
2906	2906	return index;
2907	2907	}
2908		SWIGINTERN bool std_vector_Sl_aiVector3D_Sm__Sg__Remove(std::vector< aiVector3D * > self,aiVector3D const &value){
2909		std::vector< aiVector3D * >::iterator it = std::find(self->begin(), self->end(), value);
	2908	SWIGINTERN bool std_vector_Sl_aiVector3D_Sm__Sg__Remove(std::vector< aiVector3D * > self,aiVector3t< float > const &value){
	2909	std::vector< aiVector3t< float > * >::iterator it = std::find(self->begin(), self->end(), value);
2910	2910	if (it != self->end()) {
2911	2911	self->erase(it);
2912	2912	return true;

2929	2929	else
2930	2930	throw std::out_of_range("index");
2931	2931	}
2932		SWIGINTERN std::vector< std::vector< aiVector3D * > >::const_reference std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__getitem(std::vector< std::vector< aiVector3D * > > *self,int index){
	2932	SWIGINTERN std::vector< std::vector< aiVector3t< float > * > >::const_reference std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__getitem(std::vector< std::vector< aiVector3D * > > *self,int index){
2933	2933	if (index>=0 && index<(int)self->size())
2934	2934	return (*self)[index];
2935	2935	else

3311	3311	}
3312	3312
3313	3313
	3314	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_CONFIG_PP_SBBC_MAX_BONES_get() {
	3315	char * jresult ;
	3316	char *result = 0 ;
	3317
	3318	result = (char *)("PP_SBBC_MAX_BONES");
	3319	jresult = SWIG_csharp_string_callback((const char *)result);
	3320	return jresult;
	3321	}
	3322
	3323
	3324	SWIGEXPORT int SWIGSTDCALL CSharp_AI_SBBC_DEFAULT_MAX_BONES_get() {
	3325	int jresult ;
	3326	int result;
	3327
	3328	result = (int)(60);
	3329	jresult = result;
	3330	return jresult;
	3331	}
	3332
	3333
3314	3334	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE_get() {
3315	3335	char * jresult ;
3316	3336	char *result = 0 ;

3321	3341	}
3322	3342
3323	3343
	3344	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_CONFIG_PP_CT_TEXTURE_CHANNEL_INDEX_get() {
	3345	char * jresult ;
	3346	char *result = 0 ;
	3347
	3348	result = (char *)("PP_CT_TEXTURE_CHANNEL_INDEX");
	3349	jresult = SWIG_csharp_string_callback((const char *)result);
	3350	return jresult;
	3351	}
	3352
	3353
3324	3354	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE_get() {
3325	3355	char * jresult ;
3326	3356	char *result = 0 ;

3451	3481	}
3452	3482
3453	3483
	3484	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_CONFIG_PP_DB_THRESHOLD_get() {
	3485	char * jresult ;
	3486	char *result = 0 ;
	3487
	3488	result = (char *)("PP_DB_THRESHOLD");
	3489	jresult = SWIG_csharp_string_callback((const char *)result);
	3490	return jresult;
	3491	}
	3492
	3493
	3494	SWIGEXPORT double SWIGSTDCALL CSharp_AI_DEBONE_THRESHOLD_get() {
	3495	double jresult ;
	3496	double result;
	3497
	3498	result = (double)(1.0);
	3499	jresult = result;
	3500	return jresult;
	3501	}
	3502
	3503
	3504	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_CONFIG_PP_DB_ALL_OR_NONE_get() {
	3505	char * jresult ;
	3506	char *result = 0 ;
	3507
	3508	result = (char *)("PP_DB_ALL_OR_NONE");
	3509	jresult = SWIG_csharp_string_callback((const char *)result);
	3510	return jresult;
	3511	}
	3512
	3513
3454	3514	SWIGEXPORT int SWIGSTDCALL CSharp_PP_ICL_PTCACHE_SIZE_get() {
3455	3515	int jresult ;
3456	3516	int result;

3766	3826	char *result = 0 ;
3767	3827
3768	3828	result = (char *)("IMPORT_OGRE_MATERIAL_FILE");
	3829	jresult = SWIG_csharp_string_callback((const char *)result);
	3830	return jresult;
	3831	}
	3832
	3833
	3834	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_CONFIG_IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME_get() {
	3835	char * jresult ;
	3836	char *result = 0 ;
	3837
	3838	result = (char *)("IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME");
	3839	jresult = SWIG_csharp_string_callback((const char *)result);
	3840	return jresult;
	3841	}
	3842
	3843
	3844	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_CONFIG_IMPORT_IFC_SKIP_SPACE_REPRESENTATIONS_get() {
	3845	char * jresult ;
	3846	char *result = 0 ;
	3847
	3848	result = (char *)("IMPORT_IFC_SKIP_SPACE_REPRESENTATIONS");
	3849	jresult = SWIG_csharp_string_callback((const char *)result);
	3850	return jresult;
	3851	}
	3852
	3853
	3854	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_CONFIG_IMPORT_IFC_SKIP_CURVE_REPRESENTATIONS_get() {
	3855	char * jresult ;
	3856	char *result = 0 ;
	3857
	3858	result = (char *)("IMPORT_IFC_SKIP_CURVE_REPRESENTATIONS");
	3859	jresult = SWIG_csharp_string_callback((const char *)result);
	3860	return jresult;
	3861	}
	3862
	3863
	3864	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_CONFIG_IMPORT_IFC_CUSTOM_TRIANGULATION_get() {
	3865	char * jresult ;
	3866	char *result = 0 ;
	3867
	3868	result = (char *)("IMPORT_IFC_CUSTOM_TRIANGULATION");
3769	3869	jresult = SWIG_csharp_string_callback((const char *)result);
3770	3870	return jresult;
3771	3871	}

4368	4468	}
4369	4469	result = (bool)((aiString const )arg1)->operator !=((aiString const &)arg2);
4370	4470	jresult = result;
	4471	return jresult;
	4472	}
	4473
	4474
	4475	SWIGEXPORT char * SWIGSTDCALL CSharp_aiString_C_Str(void * jarg1) {
	4476	char * jresult ;
	4477	aiString arg1 = (aiString ) 0 ;
	4478	char *result = 0 ;
	4479
	4480	arg1 = (aiString *)jarg1;
	4481	result = (char )((aiString const )arg1)->C_Str();
	4482	jresult = SWIG_csharp_string_callback((const char *)result);
4371	4483	return jresult;
4372	4484	}
4373	4485

4725	4837	}
4726	4838
4727	4839
4728		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector2D__SWIG_0() {
4729		void * jresult ;
	4840	SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mName_set(void * jarg1, void * jarg2) {
	4841	aiCamera arg1 = (aiCamera ) 0 ;
	4842	aiString arg2 = (aiString ) 0 ;
	4843
	4844	arg1 = (aiCamera *)jarg1;
	4845	arg2 = (aiString *)jarg2;
	4846	if (arg1) (arg1)->mName = *arg2;
	4847	}
	4848
	4849
	4850	SWIGEXPORT void * SWIGSTDCALL CSharp_aiCamera_mName_get(void * jarg1) {
	4851	void * jresult ;
	4852	aiCamera arg1 = (aiCamera ) 0 ;
	4853	aiString *result = 0 ;
	4854
	4855	arg1 = (aiCamera *)jarg1;
	4856	result = (aiString *)& ((arg1)->mName);
	4857	jresult = (void *)result;
	4858	return jresult;
	4859	}
	4860
	4861
	4862	SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mPosition_set(void * jarg1, void * jarg2) {
	4863	aiCamera arg1 = (aiCamera ) 0 ;
	4864	aiVector3D arg2 = (aiVector3D ) 0 ;
	4865
	4866	arg1 = (aiCamera *)jarg1;
	4867	arg2 = (aiVector3D *)jarg2;
	4868	if (arg1) (arg1)->mPosition = *arg2;
	4869	}
	4870
	4871
	4872	SWIGEXPORT void * SWIGSTDCALL CSharp_aiCamera_mPosition_get(void * jarg1) {
	4873	void * jresult ;
	4874	aiCamera arg1 = (aiCamera ) 0 ;
	4875	aiVector3D *result = 0 ;
	4876
	4877	arg1 = (aiCamera *)jarg1;
	4878	result = (aiVector3D *)& ((arg1)->mPosition);
	4879	jresult = (void *)result;
	4880	return jresult;
	4881	}
	4882
	4883
	4884	SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mUp_set(void * jarg1, void * jarg2) {
	4885	aiCamera arg1 = (aiCamera ) 0 ;
	4886	aiVector3D arg2 = (aiVector3D ) 0 ;
	4887
	4888	arg1 = (aiCamera *)jarg1;
	4889	arg2 = (aiVector3D *)jarg2;
	4890	if (arg1) (arg1)->mUp = *arg2;
	4891	}
	4892
	4893
	4894	SWIGEXPORT void * SWIGSTDCALL CSharp_aiCamera_mUp_get(void * jarg1) {
	4895	void * jresult ;
	4896	aiCamera arg1 = (aiCamera ) 0 ;
	4897	aiVector3D *result = 0 ;
	4898
	4899	arg1 = (aiCamera *)jarg1;
	4900	result = (aiVector3D *)& ((arg1)->mUp);
	4901	jresult = (void *)result;
	4902	return jresult;
	4903	}
	4904
	4905
	4906	SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mLookAt_set(void * jarg1, void * jarg2) {
	4907	aiCamera arg1 = (aiCamera ) 0 ;
	4908	aiVector3D arg2 = (aiVector3D ) 0 ;
	4909
	4910	arg1 = (aiCamera *)jarg1;
	4911	arg2 = (aiVector3D *)jarg2;
	4912	if (arg1) (arg1)->mLookAt = *arg2;
	4913	}
	4914
	4915
	4916	SWIGEXPORT void * SWIGSTDCALL CSharp_aiCamera_mLookAt_get(void * jarg1) {
	4917	void * jresult ;
	4918	aiCamera arg1 = (aiCamera ) 0 ;
	4919	aiVector3D *result = 0 ;
	4920
	4921	arg1 = (aiCamera *)jarg1;
	4922	result = (aiVector3D *)& ((arg1)->mLookAt);
	4923	jresult = (void *)result;
	4924	return jresult;
	4925	}
	4926
	4927
	4928	SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mHorizontalFOV_set(void * jarg1, float jarg2) {
	4929	aiCamera arg1 = (aiCamera ) 0 ;
	4930	float arg2 ;
	4931
	4932	arg1 = (aiCamera *)jarg1;
	4933	arg2 = (float)jarg2;
	4934	if (arg1) (arg1)->mHorizontalFOV = arg2;
	4935	}
	4936
	4937
	4938	SWIGEXPORT float SWIGSTDCALL CSharp_aiCamera_mHorizontalFOV_get(void * jarg1) {
	4939	float jresult ;
	4940	aiCamera arg1 = (aiCamera ) 0 ;
	4941	float result;
	4942
	4943	arg1 = (aiCamera *)jarg1;
	4944	result = (float) ((arg1)->mHorizontalFOV);
	4945	jresult = result;
	4946	return jresult;
	4947	}
	4948
	4949
	4950	SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mClipPlaneNear_set(void * jarg1, float jarg2) {
	4951	aiCamera arg1 = (aiCamera ) 0 ;
	4952	float arg2 ;
	4953
	4954	arg1 = (aiCamera *)jarg1;
	4955	arg2 = (float)jarg2;
	4956	if (arg1) (arg1)->mClipPlaneNear = arg2;
	4957	}
	4958
	4959
	4960	SWIGEXPORT float SWIGSTDCALL CSharp_aiCamera_mClipPlaneNear_get(void * jarg1) {
	4961	float jresult ;
	4962	aiCamera arg1 = (aiCamera ) 0 ;
	4963	float result;
	4964
	4965	arg1 = (aiCamera *)jarg1;
	4966	result = (float) ((arg1)->mClipPlaneNear);
	4967	jresult = result;
	4968	return jresult;
	4969	}
	4970
	4971
	4972	SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mClipPlaneFar_set(void * jarg1, float jarg2) {
	4973	aiCamera arg1 = (aiCamera ) 0 ;
	4974	float arg2 ;
	4975
	4976	arg1 = (aiCamera *)jarg1;
	4977	arg2 = (float)jarg2;
	4978	if (arg1) (arg1)->mClipPlaneFar = arg2;
	4979	}
	4980
	4981
	4982	SWIGEXPORT float SWIGSTDCALL CSharp_aiCamera_mClipPlaneFar_get(void * jarg1) {
	4983	float jresult ;
	4984	aiCamera arg1 = (aiCamera ) 0 ;
	4985	float result;
	4986
	4987	arg1 = (aiCamera *)jarg1;
	4988	result = (float) ((arg1)->mClipPlaneFar);
	4989	jresult = result;
	4990	return jresult;
	4991	}
	4992
	4993
	4994	SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mAspect_set(void * jarg1, float jarg2) {
	4995	aiCamera arg1 = (aiCamera ) 0 ;
	4996	float arg2 ;
	4997
	4998	arg1 = (aiCamera *)jarg1;
	4999	arg2 = (float)jarg2;
	5000	if (arg1) (arg1)->mAspect = arg2;
	5001	}
	5002
	5003
	5004	SWIGEXPORT float SWIGSTDCALL CSharp_aiCamera_mAspect_get(void * jarg1) {
	5005	float jresult ;
	5006	aiCamera arg1 = (aiCamera ) 0 ;
	5007	float result;
	5008
	5009	arg1 = (aiCamera *)jarg1;
	5010	result = (float) ((arg1)->mAspect);
	5011	jresult = result;
	5012	return jresult;
	5013	}
	5014
	5015
	5016	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiCamera() {
	5017	void * jresult ;
	5018	aiCamera *result = 0 ;
	5019
	5020	result = (aiCamera *)new aiCamera();
	5021	jresult = (void *)result;
	5022	return jresult;
	5023	}
	5024
	5025
	5026	SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_GetCameraMatrix(void * jarg1, void * jarg2) {
	5027	aiCamera arg1 = (aiCamera ) 0 ;
	5028	aiMatrix4x4 *arg2 = 0 ;
	5029
	5030	arg1 = (aiCamera *)jarg1;
	5031	arg2 = (aiMatrix4x4 *)jarg2;
	5032	if (!arg2) {
	5033	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 & type is null", 0);
	5034	return ;
	5035	}
	5036	((aiCamera const )arg1)->GetCameraMatrix(arg2);
	5037	}
	5038
	5039
	5040	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiCamera(void * jarg1) {
	5041	aiCamera arg1 = (aiCamera ) 0 ;
	5042
	5043	arg1 = (aiCamera *)jarg1;
	5044	delete arg1;
	5045	}
	5046
	5047
	5048	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mName_set(void * jarg1, void * jarg2) {
	5049	aiLight arg1 = (aiLight ) 0 ;
	5050	aiString arg2 = (aiString ) 0 ;
	5051
	5052	arg1 = (aiLight *)jarg1;
	5053	arg2 = (aiString *)jarg2;
	5054	if (arg1) (arg1)->mName = *arg2;
	5055	}
	5056
	5057
	5058	SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mName_get(void * jarg1) {
	5059	void * jresult ;
	5060	aiLight arg1 = (aiLight ) 0 ;
	5061	aiString *result = 0 ;
	5062
	5063	arg1 = (aiLight *)jarg1;
	5064	result = (aiString *)& ((arg1)->mName);
	5065	jresult = (void *)result;
	5066	return jresult;
	5067	}
	5068
	5069
	5070	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mType_set(void * jarg1, int jarg2) {
	5071	aiLight arg1 = (aiLight ) 0 ;
	5072	aiLightSourceType arg2 ;
	5073
	5074	arg1 = (aiLight *)jarg1;
	5075	arg2 = (aiLightSourceType)jarg2;
	5076	if (arg1) (arg1)->mType = arg2;
	5077	}
	5078
	5079
	5080	SWIGEXPORT int SWIGSTDCALL CSharp_aiLight_mType_get(void * jarg1) {
	5081	int jresult ;
	5082	aiLight arg1 = (aiLight ) 0 ;
	5083	aiLightSourceType result;
	5084
	5085	arg1 = (aiLight *)jarg1;
	5086	result = (aiLightSourceType) ((arg1)->mType);
	5087	jresult = result;
	5088	return jresult;
	5089	}
	5090
	5091
	5092	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mPosition_set(void * jarg1, void * jarg2) {
	5093	aiLight arg1 = (aiLight ) 0 ;
	5094	aiVector3D arg2 = (aiVector3D ) 0 ;
	5095
	5096	arg1 = (aiLight *)jarg1;
	5097	arg2 = (aiVector3D *)jarg2;
	5098	if (arg1) (arg1)->mPosition = *arg2;
	5099	}
	5100
	5101
	5102	SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mPosition_get(void * jarg1) {
	5103	void * jresult ;
	5104	aiLight arg1 = (aiLight ) 0 ;
	5105	aiVector3D *result = 0 ;
	5106
	5107	arg1 = (aiLight *)jarg1;
	5108	result = (aiVector3D *)& ((arg1)->mPosition);
	5109	jresult = (void *)result;
	5110	return jresult;
	5111	}
	5112
	5113
	5114	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mDirection_set(void * jarg1, void * jarg2) {
	5115	aiLight arg1 = (aiLight ) 0 ;
	5116	aiVector3D arg2 = (aiVector3D ) 0 ;
	5117
	5118	arg1 = (aiLight *)jarg1;
	5119	arg2 = (aiVector3D *)jarg2;
	5120	if (arg1) (arg1)->mDirection = *arg2;
	5121	}
	5122
	5123
	5124	SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mDirection_get(void * jarg1) {
	5125	void * jresult ;
	5126	aiLight arg1 = (aiLight ) 0 ;
	5127	aiVector3D *result = 0 ;
	5128
	5129	arg1 = (aiLight *)jarg1;
	5130	result = (aiVector3D *)& ((arg1)->mDirection);
	5131	jresult = (void *)result;
	5132	return jresult;
	5133	}
	5134
	5135
	5136	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mAttenuationConstant_set(void * jarg1, float jarg2) {
	5137	aiLight arg1 = (aiLight ) 0 ;
	5138	float arg2 ;
	5139
	5140	arg1 = (aiLight *)jarg1;
	5141	arg2 = (float)jarg2;
	5142	if (arg1) (arg1)->mAttenuationConstant = arg2;
	5143	}
	5144
	5145
	5146	SWIGEXPORT float SWIGSTDCALL CSharp_aiLight_mAttenuationConstant_get(void * jarg1) {
	5147	float jresult ;
	5148	aiLight arg1 = (aiLight ) 0 ;
	5149	float result;
	5150
	5151	arg1 = (aiLight *)jarg1;
	5152	result = (float) ((arg1)->mAttenuationConstant);
	5153	jresult = result;
	5154	return jresult;
	5155	}
	5156
	5157
	5158	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mAttenuationLinear_set(void * jarg1, float jarg2) {
	5159	aiLight arg1 = (aiLight ) 0 ;
	5160	float arg2 ;
	5161
	5162	arg1 = (aiLight *)jarg1;
	5163	arg2 = (float)jarg2;
	5164	if (arg1) (arg1)->mAttenuationLinear = arg2;
	5165	}
	5166
	5167
	5168	SWIGEXPORT float SWIGSTDCALL CSharp_aiLight_mAttenuationLinear_get(void * jarg1) {
	5169	float jresult ;
	5170	aiLight arg1 = (aiLight ) 0 ;
	5171	float result;
	5172
	5173	arg1 = (aiLight *)jarg1;
	5174	result = (float) ((arg1)->mAttenuationLinear);
	5175	jresult = result;
	5176	return jresult;
	5177	}
	5178
	5179
	5180	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mAttenuationQuadratic_set(void * jarg1, float jarg2) {
	5181	aiLight arg1 = (aiLight ) 0 ;
	5182	float arg2 ;
	5183
	5184	arg1 = (aiLight *)jarg1;
	5185	arg2 = (float)jarg2;
	5186	if (arg1) (arg1)->mAttenuationQuadratic = arg2;
	5187	}
	5188
	5189
	5190	SWIGEXPORT float SWIGSTDCALL CSharp_aiLight_mAttenuationQuadratic_get(void * jarg1) {
	5191	float jresult ;
	5192	aiLight arg1 = (aiLight ) 0 ;
	5193	float result;
	5194
	5195	arg1 = (aiLight *)jarg1;
	5196	result = (float) ((arg1)->mAttenuationQuadratic);
	5197	jresult = result;
	5198	return jresult;
	5199	}
	5200
	5201
	5202	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mColorDiffuse_set(void * jarg1, void * jarg2) {
	5203	aiLight arg1 = (aiLight ) 0 ;
	5204	aiColor3D arg2 = (aiColor3D ) 0 ;
	5205
	5206	arg1 = (aiLight *)jarg1;
	5207	arg2 = (aiColor3D *)jarg2;
	5208	if (arg1) (arg1)->mColorDiffuse = *arg2;
	5209	}
	5210
	5211
	5212	SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mColorDiffuse_get(void * jarg1) {
	5213	void * jresult ;
	5214	aiLight arg1 = (aiLight ) 0 ;
	5215	aiColor3D *result = 0 ;
	5216
	5217	arg1 = (aiLight *)jarg1;
	5218	result = (aiColor3D *)& ((arg1)->mColorDiffuse);
	5219	jresult = (void *)result;
	5220	return jresult;
	5221	}
	5222
	5223
	5224	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mColorSpecular_set(void * jarg1, void * jarg2) {
	5225	aiLight arg1 = (aiLight ) 0 ;
	5226	aiColor3D arg2 = (aiColor3D ) 0 ;
	5227
	5228	arg1 = (aiLight *)jarg1;
	5229	arg2 = (aiColor3D *)jarg2;
	5230	if (arg1) (arg1)->mColorSpecular = *arg2;
	5231	}
	5232
	5233
	5234	SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mColorSpecular_get(void * jarg1) {
	5235	void * jresult ;
	5236	aiLight arg1 = (aiLight ) 0 ;
	5237	aiColor3D *result = 0 ;
	5238
	5239	arg1 = (aiLight *)jarg1;
	5240	result = (aiColor3D *)& ((arg1)->mColorSpecular);
	5241	jresult = (void *)result;
	5242	return jresult;
	5243	}
	5244
	5245
	5246	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mColorAmbient_set(void * jarg1, void * jarg2) {
	5247	aiLight arg1 = (aiLight ) 0 ;
	5248	aiColor3D arg2 = (aiColor3D ) 0 ;
	5249
	5250	arg1 = (aiLight *)jarg1;
	5251	arg2 = (aiColor3D *)jarg2;
	5252	if (arg1) (arg1)->mColorAmbient = *arg2;
	5253	}
	5254
	5255
	5256	SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mColorAmbient_get(void * jarg1) {
	5257	void * jresult ;
	5258	aiLight arg1 = (aiLight ) 0 ;
	5259	aiColor3D *result = 0 ;
	5260
	5261	arg1 = (aiLight *)jarg1;
	5262	result = (aiColor3D *)& ((arg1)->mColorAmbient);
	5263	jresult = (void *)result;
	5264	return jresult;
	5265	}
	5266
	5267
	5268	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mAngleInnerCone_set(void * jarg1, float jarg2) {
	5269	aiLight arg1 = (aiLight ) 0 ;
	5270	float arg2 ;
	5271
	5272	arg1 = (aiLight *)jarg1;
	5273	arg2 = (float)jarg2;
	5274	if (arg1) (arg1)->mAngleInnerCone = arg2;
	5275	}
	5276
	5277
	5278	SWIGEXPORT float SWIGSTDCALL CSharp_aiLight_mAngleInnerCone_get(void * jarg1) {
	5279	float jresult ;
	5280	aiLight arg1 = (aiLight ) 0 ;
	5281	float result;
	5282
	5283	arg1 = (aiLight *)jarg1;
	5284	result = (float) ((arg1)->mAngleInnerCone);
	5285	jresult = result;
	5286	return jresult;
	5287	}
	5288
	5289
	5290	SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mAngleOuterCone_set(void * jarg1, float jarg2) {
	5291	aiLight arg1 = (aiLight ) 0 ;
	5292	float arg2 ;
	5293
	5294	arg1 = (aiLight *)jarg1;
	5295	arg2 = (float)jarg2;
	5296	if (arg1) (arg1)->mAngleOuterCone = arg2;
	5297	}
	5298
	5299
	5300	SWIGEXPORT float SWIGSTDCALL CSharp_aiLight_mAngleOuterCone_get(void * jarg1) {
	5301	float jresult ;
	5302	aiLight arg1 = (aiLight ) 0 ;
	5303	float result;
	5304
	5305	arg1 = (aiLight *)jarg1;
	5306	result = (float) ((arg1)->mAngleOuterCone);
	5307	jresult = result;
	5308	return jresult;
	5309	}
	5310
	5311
	5312	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiLight() {
	5313	void * jresult ;
	5314	aiLight *result = 0 ;
	5315
	5316	result = (aiLight *)new aiLight();
	5317	jresult = (void *)result;
	5318	return jresult;
	5319	}
	5320
	5321
	5322	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiLight(void * jarg1) {
	5323	aiLight arg1 = (aiLight ) 0 ;
	5324
	5325	arg1 = (aiLight *)jarg1;
	5326	delete arg1;
	5327	}
	5328
	5329
	5330	SWIGEXPORT void SWIGSTDCALL CSharp_aiVectorKey_mTime_set(void * jarg1, double jarg2) {
	5331	aiVectorKey arg1 = (aiVectorKey ) 0 ;
	5332	double arg2 ;
	5333
	5334	arg1 = (aiVectorKey *)jarg1;
	5335	arg2 = (double)jarg2;
	5336	if (arg1) (arg1)->mTime = arg2;
	5337	}
	5338
	5339
	5340	SWIGEXPORT double SWIGSTDCALL CSharp_aiVectorKey_mTime_get(void * jarg1) {
	5341	double jresult ;
	5342	aiVectorKey arg1 = (aiVectorKey ) 0 ;
	5343	double result;
	5344
	5345	arg1 = (aiVectorKey *)jarg1;
	5346	result = (double) ((arg1)->mTime);
	5347	jresult = result;
	5348	return jresult;
	5349	}
	5350
	5351
	5352	SWIGEXPORT void SWIGSTDCALL CSharp_aiVectorKey_mValue_set(void * jarg1, void * jarg2) {
	5353	aiVectorKey arg1 = (aiVectorKey ) 0 ;
	5354	aiVector3D arg2 = (aiVector3D ) 0 ;
	5355
	5356	arg1 = (aiVectorKey *)jarg1;
	5357	arg2 = (aiVector3D *)jarg2;
	5358	if (arg1) (arg1)->mValue = *arg2;
	5359	}
	5360
	5361
	5362	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVectorKey_mValue_get(void * jarg1) {
	5363	void * jresult ;
	5364	aiVectorKey arg1 = (aiVectorKey ) 0 ;
	5365	aiVector3D *result = 0 ;
	5366
	5367	arg1 = (aiVectorKey *)jarg1;
	5368	result = (aiVector3D *)& ((arg1)->mValue);
	5369	jresult = (void *)result;
	5370	return jresult;
	5371	}
	5372
	5373
	5374	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVectorKey__SWIG_0() {
	5375	void * jresult ;
	5376	aiVectorKey *result = 0 ;
	5377
	5378	result = (aiVectorKey *)new aiVectorKey();
	5379	jresult = (void *)result;
	5380	return jresult;
	5381	}
	5382
	5383
	5384	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVectorKey__SWIG_1(double jarg1, void * jarg2) {
	5385	void * jresult ;
	5386	double arg1 ;
	5387	aiVector3D *arg2 = 0 ;
	5388	aiVectorKey *result = 0 ;
	5389
	5390	arg1 = (double)jarg1;
	5391	arg2 = (aiVector3D *)jarg2;
	5392	if (!arg2) {
	5393	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	5394	return 0;
	5395	}
	5396	result = (aiVectorKey )new aiVectorKey(arg1,(aiVector3D const &)arg2);
	5397	jresult = (void *)result;
	5398	return jresult;
	5399	}
	5400
	5401
	5402	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVectorKey___equal__(void * jarg1, void * jarg2) {
	5403	unsigned int jresult ;
	5404	aiVectorKey arg1 = (aiVectorKey ) 0 ;
	5405	aiVectorKey *arg2 = 0 ;
	5406	bool result;
	5407
	5408	arg1 = (aiVectorKey *)jarg1;
	5409	arg2 = (aiVectorKey *)jarg2;
	5410	if (!arg2) {
	5411	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVectorKey const & type is null", 0);
	5412	return 0;
	5413	}
	5414	result = (bool)((aiVectorKey const )arg1)->operator ==((aiVectorKey const &)arg2);
	5415	jresult = result;
	5416	return jresult;
	5417	}
	5418
	5419
	5420	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVectorKey___nequal__(void * jarg1, void * jarg2) {
	5421	unsigned int jresult ;
	5422	aiVectorKey arg1 = (aiVectorKey ) 0 ;
	5423	aiVectorKey *arg2 = 0 ;
	5424	bool result;
	5425
	5426	arg1 = (aiVectorKey *)jarg1;
	5427	arg2 = (aiVectorKey *)jarg2;
	5428	if (!arg2) {
	5429	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVectorKey const & type is null", 0);
	5430	return 0;
	5431	}
	5432	result = (bool)((aiVectorKey const )arg1)->operator !=((aiVectorKey const &)arg2);
	5433	jresult = result;
	5434	return jresult;
	5435	}
	5436
	5437
	5438	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVectorKey___smaller__(void * jarg1, void * jarg2) {
	5439	unsigned int jresult ;
	5440	aiVectorKey arg1 = (aiVectorKey ) 0 ;
	5441	aiVectorKey *arg2 = 0 ;
	5442	bool result;
	5443
	5444	arg1 = (aiVectorKey *)jarg1;
	5445	arg2 = (aiVectorKey *)jarg2;
	5446	if (!arg2) {
	5447	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVectorKey const & type is null", 0);
	5448	return 0;
	5449	}
	5450	result = (bool)((aiVectorKey const )arg1)->operator <((aiVectorKey const &)arg2);
	5451	jresult = result;
	5452	return jresult;
	5453	}
	5454
	5455
	5456	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVectorKey___greater__(void * jarg1, void * jarg2) {
	5457	unsigned int jresult ;
	5458	aiVectorKey arg1 = (aiVectorKey ) 0 ;
	5459	aiVectorKey *arg2 = 0 ;
	5460	bool result;
	5461
	5462	arg1 = (aiVectorKey *)jarg1;
	5463	arg2 = (aiVectorKey *)jarg2;
	5464	if (!arg2) {
	5465	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVectorKey const & type is null", 0);
	5466	return 0;
	5467	}
	5468	result = (bool)((aiVectorKey const )arg1)->operator >((aiVectorKey const &)arg2);
	5469	jresult = result;
	5470	return jresult;
	5471	}
	5472
	5473
	5474	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiVectorKey(void * jarg1) {
	5475	aiVectorKey arg1 = (aiVectorKey ) 0 ;
	5476
	5477	arg1 = (aiVectorKey *)jarg1;
	5478	delete arg1;
	5479	}
	5480
	5481
	5482	SWIGEXPORT void SWIGSTDCALL CSharp_aiQuatKey_mTime_set(void * jarg1, double jarg2) {
	5483	aiQuatKey arg1 = (aiQuatKey ) 0 ;
	5484	double arg2 ;
	5485
	5486	arg1 = (aiQuatKey *)jarg1;
	5487	arg2 = (double)jarg2;
	5488	if (arg1) (arg1)->mTime = arg2;
	5489	}
	5490
	5491
	5492	SWIGEXPORT double SWIGSTDCALL CSharp_aiQuatKey_mTime_get(void * jarg1) {
	5493	double jresult ;
	5494	aiQuatKey arg1 = (aiQuatKey ) 0 ;
	5495	double result;
	5496
	5497	arg1 = (aiQuatKey *)jarg1;
	5498	result = (double) ((arg1)->mTime);
	5499	jresult = result;
	5500	return jresult;
	5501	}
	5502
	5503
	5504	SWIGEXPORT void SWIGSTDCALL CSharp_aiQuatKey_mValue_set(void * jarg1, void * jarg2) {
	5505	aiQuatKey arg1 = (aiQuatKey ) 0 ;
	5506	aiQuaternion arg2 = (aiQuaternion ) 0 ;
	5507
	5508	arg1 = (aiQuatKey *)jarg1;
	5509	arg2 = (aiQuaternion *)jarg2;
	5510	if (arg1) (arg1)->mValue = *arg2;
	5511	}
	5512
	5513
	5514	SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuatKey_mValue_get(void * jarg1) {
	5515	void * jresult ;
	5516	aiQuatKey arg1 = (aiQuatKey ) 0 ;
	5517	aiQuaternion *result = 0 ;
	5518
	5519	arg1 = (aiQuatKey *)jarg1;
	5520	result = (aiQuaternion *)& ((arg1)->mValue);
	5521	jresult = (void *)result;
	5522	return jresult;
	5523	}
	5524
	5525
	5526	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuatKey__SWIG_0() {
	5527	void * jresult ;
	5528	aiQuatKey *result = 0 ;
	5529
	5530	result = (aiQuatKey *)new aiQuatKey();
	5531	jresult = (void *)result;
	5532	return jresult;
	5533	}
	5534
	5535
	5536	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuatKey__SWIG_1(double jarg1, void * jarg2) {
	5537	void * jresult ;
	5538	double arg1 ;
	5539	aiQuaternion *arg2 = 0 ;
	5540	aiQuatKey *result = 0 ;
	5541
	5542	arg1 = (double)jarg1;
	5543	arg2 = (aiQuaternion *)jarg2;
	5544	if (!arg2) {
	5545	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaternion const & type is null", 0);
	5546	return 0;
	5547	}
	5548	result = (aiQuatKey )new aiQuatKey(arg1,(aiQuaternion const &)arg2);
	5549	jresult = (void *)result;
	5550	return jresult;
	5551	}
	5552
	5553
	5554	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuatKey___equal__(void * jarg1, void * jarg2) {
	5555	unsigned int jresult ;
	5556	aiQuatKey arg1 = (aiQuatKey ) 0 ;
	5557	aiQuatKey *arg2 = 0 ;
	5558	bool result;
	5559
	5560	arg1 = (aiQuatKey *)jarg1;
	5561	arg2 = (aiQuatKey *)jarg2;
	5562	if (!arg2) {
	5563	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuatKey const & type is null", 0);
	5564	return 0;
	5565	}
	5566	result = (bool)((aiQuatKey const )arg1)->operator ==((aiQuatKey const &)arg2);
	5567	jresult = result;
	5568	return jresult;
	5569	}
	5570
	5571
	5572	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuatKey___nequal__(void * jarg1, void * jarg2) {
	5573	unsigned int jresult ;
	5574	aiQuatKey arg1 = (aiQuatKey ) 0 ;
	5575	aiQuatKey *arg2 = 0 ;
	5576	bool result;
	5577
	5578	arg1 = (aiQuatKey *)jarg1;
	5579	arg2 = (aiQuatKey *)jarg2;
	5580	if (!arg2) {
	5581	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuatKey const & type is null", 0);
	5582	return 0;
	5583	}
	5584	result = (bool)((aiQuatKey const )arg1)->operator !=((aiQuatKey const &)arg2);
	5585	jresult = result;
	5586	return jresult;
	5587	}
	5588
	5589
	5590	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuatKey___smaller__(void * jarg1, void * jarg2) {
	5591	unsigned int jresult ;
	5592	aiQuatKey arg1 = (aiQuatKey ) 0 ;
	5593	aiQuatKey *arg2 = 0 ;
	5594	bool result;
	5595
	5596	arg1 = (aiQuatKey *)jarg1;
	5597	arg2 = (aiQuatKey *)jarg2;
	5598	if (!arg2) {
	5599	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuatKey const & type is null", 0);
	5600	return 0;
	5601	}
	5602	result = (bool)((aiQuatKey const )arg1)->operator <((aiQuatKey const &)arg2);
	5603	jresult = result;
	5604	return jresult;
	5605	}
	5606
	5607
	5608	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuatKey___greater__(void * jarg1, void * jarg2) {
	5609	unsigned int jresult ;
	5610	aiQuatKey arg1 = (aiQuatKey ) 0 ;
	5611	aiQuatKey *arg2 = 0 ;
	5612	bool result;
	5613
	5614	arg1 = (aiQuatKey *)jarg1;
	5615	arg2 = (aiQuatKey *)jarg2;
	5616	if (!arg2) {
	5617	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuatKey const & type is null", 0);
	5618	return 0;
	5619	}
	5620	result = (bool)((aiQuatKey const )arg1)->operator >((aiQuatKey const &)arg2);
	5621	jresult = result;
	5622	return jresult;
	5623	}
	5624
	5625
	5626	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiQuatKey(void * jarg1) {
	5627	aiQuatKey arg1 = (aiQuatKey ) 0 ;
	5628
	5629	arg1 = (aiQuatKey *)jarg1;
	5630	delete arg1;
	5631	}
	5632
	5633
	5634	SWIGEXPORT void SWIGSTDCALL CSharp_aiMeshKey_mTime_set(void * jarg1, double jarg2) {
	5635	aiMeshKey arg1 = (aiMeshKey ) 0 ;
	5636	double arg2 ;
	5637
	5638	arg1 = (aiMeshKey *)jarg1;
	5639	arg2 = (double)jarg2;
	5640	if (arg1) (arg1)->mTime = arg2;
	5641	}
	5642
	5643
	5644	SWIGEXPORT double SWIGSTDCALL CSharp_aiMeshKey_mTime_get(void * jarg1) {
	5645	double jresult ;
	5646	aiMeshKey arg1 = (aiMeshKey ) 0 ;
	5647	double result;
	5648
	5649	arg1 = (aiMeshKey *)jarg1;
	5650	result = (double) ((arg1)->mTime);
	5651	jresult = result;
	5652	return jresult;
	5653	}
	5654
	5655
	5656	SWIGEXPORT void SWIGSTDCALL CSharp_aiMeshKey_mValue_set(void * jarg1, unsigned int jarg2) {
	5657	aiMeshKey arg1 = (aiMeshKey ) 0 ;
	5658	unsigned int arg2 ;
	5659
	5660	arg1 = (aiMeshKey *)jarg1;
	5661	arg2 = (unsigned int)jarg2;
	5662	if (arg1) (arg1)->mValue = arg2;
	5663	}
	5664
	5665
	5666	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshKey_mValue_get(void * jarg1) {
	5667	unsigned int jresult ;
	5668	aiMeshKey arg1 = (aiMeshKey ) 0 ;
	5669	unsigned int result;
	5670
	5671	arg1 = (aiMeshKey *)jarg1;
	5672	result = (unsigned int) ((arg1)->mValue);
	5673	jresult = result;
	5674	return jresult;
	5675	}
	5676
	5677
	5678	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMeshKey__SWIG_0() {
	5679	void * jresult ;
	5680	aiMeshKey *result = 0 ;
	5681
	5682	result = (aiMeshKey *)new aiMeshKey();
	5683	jresult = (void *)result;
	5684	return jresult;
	5685	}
	5686
	5687
	5688	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMeshKey__SWIG_1(double jarg1, unsigned int jarg2) {
	5689	void * jresult ;
	5690	double arg1 ;
	5691	unsigned int arg2 ;
	5692	aiMeshKey *result = 0 ;
	5693
	5694	arg1 = (double)jarg1;
	5695	arg2 = (unsigned int)jarg2;
	5696	result = (aiMeshKey *)new aiMeshKey(arg1,arg2);
	5697	jresult = (void *)result;
	5698	return jresult;
	5699	}
	5700
	5701
	5702	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshKey___equal__(void * jarg1, void * jarg2) {
	5703	unsigned int jresult ;
	5704	aiMeshKey arg1 = (aiMeshKey ) 0 ;
	5705	aiMeshKey *arg2 = 0 ;
	5706	bool result;
	5707
	5708	arg1 = (aiMeshKey *)jarg1;
	5709	arg2 = (aiMeshKey *)jarg2;
	5710	if (!arg2) {
	5711	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMeshKey const & type is null", 0);
	5712	return 0;
	5713	}
	5714	result = (bool)((aiMeshKey const )arg1)->operator ==((aiMeshKey const &)arg2);
	5715	jresult = result;
	5716	return jresult;
	5717	}
	5718
	5719
	5720	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshKey___nequal__(void * jarg1, void * jarg2) {
	5721	unsigned int jresult ;
	5722	aiMeshKey arg1 = (aiMeshKey ) 0 ;
	5723	aiMeshKey *arg2 = 0 ;
	5724	bool result;
	5725
	5726	arg1 = (aiMeshKey *)jarg1;
	5727	arg2 = (aiMeshKey *)jarg2;
	5728	if (!arg2) {
	5729	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMeshKey const & type is null", 0);
	5730	return 0;
	5731	}
	5732	result = (bool)((aiMeshKey const )arg1)->operator !=((aiMeshKey const &)arg2);
	5733	jresult = result;
	5734	return jresult;
	5735	}
	5736
	5737
	5738	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshKey___smaller__(void * jarg1, void * jarg2) {
	5739	unsigned int jresult ;
	5740	aiMeshKey arg1 = (aiMeshKey ) 0 ;
	5741	aiMeshKey *arg2 = 0 ;
	5742	bool result;
	5743
	5744	arg1 = (aiMeshKey *)jarg1;
	5745	arg2 = (aiMeshKey *)jarg2;
	5746	if (!arg2) {
	5747	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMeshKey const & type is null", 0);
	5748	return 0;
	5749	}
	5750	result = (bool)((aiMeshKey const )arg1)->operator <((aiMeshKey const &)arg2);
	5751	jresult = result;
	5752	return jresult;
	5753	}
	5754
	5755
	5756	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshKey___greater__(void * jarg1, void * jarg2) {
	5757	unsigned int jresult ;
	5758	aiMeshKey arg1 = (aiMeshKey ) 0 ;
	5759	aiMeshKey *arg2 = 0 ;
	5760	bool result;
	5761
	5762	arg1 = (aiMeshKey *)jarg1;
	5763	arg2 = (aiMeshKey *)jarg2;
	5764	if (!arg2) {
	5765	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMeshKey const & type is null", 0);
	5766	return 0;
	5767	}
	5768	result = (bool)((aiMeshKey const )arg1)->operator >((aiMeshKey const &)arg2);
	5769	jresult = result;
	5770	return jresult;
	5771	}
	5772
	5773
	5774	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMeshKey(void * jarg1) {
	5775	aiMeshKey arg1 = (aiMeshKey ) 0 ;
	5776
	5777	arg1 = (aiMeshKey *)jarg1;
	5778	delete arg1;
	5779	}
	5780
	5781
	5782	SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mNodeName_set(void * jarg1, void * jarg2) {
	5783	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5784	aiString arg2 = (aiString ) 0 ;
	5785
	5786	arg1 = (aiNodeAnim *)jarg1;
	5787	arg2 = (aiString *)jarg2;
	5788	if (arg1) (arg1)->mNodeName = *arg2;
	5789	}
	5790
	5791
	5792	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNodeAnim_mNodeName_get(void * jarg1) {
	5793	void * jresult ;
	5794	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5795	aiString *result = 0 ;
	5796
	5797	arg1 = (aiNodeAnim *)jarg1;
	5798	result = (aiString *)& ((arg1)->mNodeName);
	5799	jresult = (void *)result;
	5800	return jresult;
	5801	}
	5802
	5803
	5804	SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mNumPositionKeys_set(void * jarg1, unsigned int jarg2) {
	5805	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5806	unsigned int arg2 ;
	5807
	5808	arg1 = (aiNodeAnim *)jarg1;
	5809	arg2 = (unsigned int)jarg2;
	5810	if (arg1) (arg1)->mNumPositionKeys = arg2;
	5811	}
	5812
	5813
	5814	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiNodeAnim_mNumPositionKeys_get(void * jarg1) {
	5815	unsigned int jresult ;
	5816	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5817	unsigned int result;
	5818
	5819	arg1 = (aiNodeAnim *)jarg1;
	5820	result = (unsigned int) ((arg1)->mNumPositionKeys);
	5821	jresult = result;
	5822	return jresult;
	5823	}
	5824
	5825
	5826	SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mNumRotationKeys_set(void * jarg1, unsigned int jarg2) {
	5827	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5828	unsigned int arg2 ;
	5829
	5830	arg1 = (aiNodeAnim *)jarg1;
	5831	arg2 = (unsigned int)jarg2;
	5832	if (arg1) (arg1)->mNumRotationKeys = arg2;
	5833	}
	5834
	5835
	5836	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiNodeAnim_mNumRotationKeys_get(void * jarg1) {
	5837	unsigned int jresult ;
	5838	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5839	unsigned int result;
	5840
	5841	arg1 = (aiNodeAnim *)jarg1;
	5842	result = (unsigned int) ((arg1)->mNumRotationKeys);
	5843	jresult = result;
	5844	return jresult;
	5845	}
	5846
	5847
	5848	SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mNumScalingKeys_set(void * jarg1, unsigned int jarg2) {
	5849	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5850	unsigned int arg2 ;
	5851
	5852	arg1 = (aiNodeAnim *)jarg1;
	5853	arg2 = (unsigned int)jarg2;
	5854	if (arg1) (arg1)->mNumScalingKeys = arg2;
	5855	}
	5856
	5857
	5858	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiNodeAnim_mNumScalingKeys_get(void * jarg1) {
	5859	unsigned int jresult ;
	5860	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5861	unsigned int result;
	5862
	5863	arg1 = (aiNodeAnim *)jarg1;
	5864	result = (unsigned int) ((arg1)->mNumScalingKeys);
	5865	jresult = result;
	5866	return jresult;
	5867	}
	5868
	5869
	5870	SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mPreState_set(void * jarg1, int jarg2) {
	5871	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5872	aiAnimBehaviour arg2 ;
	5873
	5874	arg1 = (aiNodeAnim *)jarg1;
	5875	arg2 = (aiAnimBehaviour)jarg2;
	5876	if (arg1) (arg1)->mPreState = arg2;
	5877	}
	5878
	5879
	5880	SWIGEXPORT int SWIGSTDCALL CSharp_aiNodeAnim_mPreState_get(void * jarg1) {
	5881	int jresult ;
	5882	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5883	aiAnimBehaviour result;
	5884
	5885	arg1 = (aiNodeAnim *)jarg1;
	5886	result = (aiAnimBehaviour) ((arg1)->mPreState);
	5887	jresult = result;
	5888	return jresult;
	5889	}
	5890
	5891
	5892	SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mPostState_set(void * jarg1, int jarg2) {
	5893	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5894	aiAnimBehaviour arg2 ;
	5895
	5896	arg1 = (aiNodeAnim *)jarg1;
	5897	arg2 = (aiAnimBehaviour)jarg2;
	5898	if (arg1) (arg1)->mPostState = arg2;
	5899	}
	5900
	5901
	5902	SWIGEXPORT int SWIGSTDCALL CSharp_aiNodeAnim_mPostState_get(void * jarg1) {
	5903	int jresult ;
	5904	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5905	aiAnimBehaviour result;
	5906
	5907	arg1 = (aiNodeAnim *)jarg1;
	5908	result = (aiAnimBehaviour) ((arg1)->mPostState);
	5909	jresult = result;
	5910	return jresult;
	5911	}
	5912
	5913
	5914	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiNodeAnim() {
	5915	void * jresult ;
	5916	aiNodeAnim *result = 0 ;
	5917
	5918	result = (aiNodeAnim *)new aiNodeAnim();
	5919	jresult = (void *)result;
	5920	return jresult;
	5921	}
	5922
	5923
	5924	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiNodeAnim(void * jarg1) {
	5925	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5926
	5927	arg1 = (aiNodeAnim *)jarg1;
	5928	delete arg1;
	5929	}
	5930
	5931
	5932	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNodeAnim_GetmPositionKeys(void * jarg1) {
	5933	void * jresult ;
	5934	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5935	std::vector< aiVectorKey * > *result = 0 ;
	5936
	5937	arg1 = (aiNodeAnim *)jarg1;
	5938	result = (std::vector< aiVectorKey * > *)aiNodeAnim_GetmPositionKeys(arg1);
	5939	jresult = (void *)result;
	5940	return jresult;
	5941	}
	5942
	5943
	5944	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNodeAnim_GetmRotationKeys(void * jarg1) {
	5945	void * jresult ;
	5946	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5947	std::vector< aiQuatKey * > *result = 0 ;
	5948
	5949	arg1 = (aiNodeAnim *)jarg1;
	5950	result = (std::vector< aiQuatKey * > *)aiNodeAnim_GetmRotationKeys(arg1);
	5951	jresult = (void *)result;
	5952	return jresult;
	5953	}
	5954
	5955
	5956	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNodeAnim_GetmScalingKeys(void * jarg1) {
	5957	void * jresult ;
	5958	aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
	5959	std::vector< aiVectorKey * > *result = 0 ;
	5960
	5961	arg1 = (aiNodeAnim *)jarg1;
	5962	result = (std::vector< aiVectorKey * > *)aiNodeAnim_GetmScalingKeys(arg1);
	5963	jresult = (void *)result;
	5964	return jresult;
	5965	}
	5966
	5967
	5968	SWIGEXPORT void SWIGSTDCALL CSharp_aiMeshAnim_mName_set(void * jarg1, void * jarg2) {
	5969	aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
	5970	aiString arg2 = (aiString ) 0 ;
	5971
	5972	arg1 = (aiMeshAnim *)jarg1;
	5973	arg2 = (aiString *)jarg2;
	5974	if (arg1) (arg1)->mName = *arg2;
	5975	}
	5976
	5977
	5978	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMeshAnim_mName_get(void * jarg1) {
	5979	void * jresult ;
	5980	aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
	5981	aiString *result = 0 ;
	5982
	5983	arg1 = (aiMeshAnim *)jarg1;
	5984	result = (aiString *)& ((arg1)->mName);
	5985	jresult = (void *)result;
	5986	return jresult;
	5987	}
	5988
	5989
	5990	SWIGEXPORT void SWIGSTDCALL CSharp_aiMeshAnim_mNumKeys_set(void * jarg1, unsigned int jarg2) {
	5991	aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
	5992	unsigned int arg2 ;
	5993
	5994	arg1 = (aiMeshAnim *)jarg1;
	5995	arg2 = (unsigned int)jarg2;
	5996	if (arg1) (arg1)->mNumKeys = arg2;
	5997	}
	5998
	5999
	6000	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshAnim_mNumKeys_get(void * jarg1) {
	6001	unsigned int jresult ;
	6002	aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
	6003	unsigned int result;
	6004
	6005	arg1 = (aiMeshAnim *)jarg1;
	6006	result = (unsigned int) ((arg1)->mNumKeys);
	6007	jresult = result;
	6008	return jresult;
	6009	}
	6010
	6011
	6012	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMeshAnim() {
	6013	void * jresult ;
	6014	aiMeshAnim *result = 0 ;
	6015
	6016	result = (aiMeshAnim *)new aiMeshAnim();
	6017	jresult = (void *)result;
	6018	return jresult;
	6019	}
	6020
	6021
	6022	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMeshAnim(void * jarg1) {
	6023	aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
	6024
	6025	arg1 = (aiMeshAnim *)jarg1;
	6026	delete arg1;
	6027	}
	6028
	6029
	6030	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMeshAnim_GetmKeys(void * jarg1) {
	6031	void * jresult ;
	6032	aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
	6033	std::vector< aiMeshKey * > *result = 0 ;
	6034
	6035	arg1 = (aiMeshAnim *)jarg1;
	6036	result = (std::vector< aiMeshKey * > *)aiMeshAnim_GetmKeys(arg1);
	6037	jresult = (void *)result;
	6038	return jresult;
	6039	}
	6040
	6041
	6042	SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimation_mName_set(void * jarg1, void * jarg2) {
	6043	aiAnimation arg1 = (aiAnimation ) 0 ;
	6044	aiString arg2 = (aiString ) 0 ;
	6045
	6046	arg1 = (aiAnimation *)jarg1;
	6047	arg2 = (aiString *)jarg2;
	6048	if (arg1) (arg1)->mName = *arg2;
	6049	}
	6050
	6051
	6052	SWIGEXPORT void * SWIGSTDCALL CSharp_aiAnimation_mName_get(void * jarg1) {
	6053	void * jresult ;
	6054	aiAnimation arg1 = (aiAnimation ) 0 ;
	6055	aiString *result = 0 ;
	6056
	6057	arg1 = (aiAnimation *)jarg1;
	6058	result = (aiString *)& ((arg1)->mName);
	6059	jresult = (void *)result;
	6060	return jresult;
	6061	}
	6062
	6063
	6064	SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimation_mDuration_set(void * jarg1, double jarg2) {
	6065	aiAnimation arg1 = (aiAnimation ) 0 ;
	6066	double arg2 ;
	6067
	6068	arg1 = (aiAnimation *)jarg1;
	6069	arg2 = (double)jarg2;
	6070	if (arg1) (arg1)->mDuration = arg2;
	6071	}
	6072
	6073
	6074	SWIGEXPORT double SWIGSTDCALL CSharp_aiAnimation_mDuration_get(void * jarg1) {
	6075	double jresult ;
	6076	aiAnimation arg1 = (aiAnimation ) 0 ;
	6077	double result;
	6078
	6079	arg1 = (aiAnimation *)jarg1;
	6080	result = (double) ((arg1)->mDuration);
	6081	jresult = result;
	6082	return jresult;
	6083	}
	6084
	6085
	6086	SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimation_mTicksPerSecond_set(void * jarg1, double jarg2) {
	6087	aiAnimation arg1 = (aiAnimation ) 0 ;
	6088	double arg2 ;
	6089
	6090	arg1 = (aiAnimation *)jarg1;
	6091	arg2 = (double)jarg2;
	6092	if (arg1) (arg1)->mTicksPerSecond = arg2;
	6093	}
	6094
	6095
	6096	SWIGEXPORT double SWIGSTDCALL CSharp_aiAnimation_mTicksPerSecond_get(void * jarg1) {
	6097	double jresult ;
	6098	aiAnimation arg1 = (aiAnimation ) 0 ;
	6099	double result;
	6100
	6101	arg1 = (aiAnimation *)jarg1;
	6102	result = (double) ((arg1)->mTicksPerSecond);
	6103	jresult = result;
	6104	return jresult;
	6105	}
	6106
	6107
	6108	SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimation_mNumChannels_set(void * jarg1, unsigned int jarg2) {
	6109	aiAnimation arg1 = (aiAnimation ) 0 ;
	6110	unsigned int arg2 ;
	6111
	6112	arg1 = (aiAnimation *)jarg1;
	6113	arg2 = (unsigned int)jarg2;
	6114	if (arg1) (arg1)->mNumChannels = arg2;
	6115	}
	6116
	6117
	6118	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimation_mNumChannels_get(void * jarg1) {
	6119	unsigned int jresult ;
	6120	aiAnimation arg1 = (aiAnimation ) 0 ;
	6121	unsigned int result;
	6122
	6123	arg1 = (aiAnimation *)jarg1;
	6124	result = (unsigned int) ((arg1)->mNumChannels);
	6125	jresult = result;
	6126	return jresult;
	6127	}
	6128
	6129
	6130	SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimation_mNumMeshChannels_set(void * jarg1, unsigned int jarg2) {
	6131	aiAnimation arg1 = (aiAnimation ) 0 ;
	6132	unsigned int arg2 ;
	6133
	6134	arg1 = (aiAnimation *)jarg1;
	6135	arg2 = (unsigned int)jarg2;
	6136	if (arg1) (arg1)->mNumMeshChannels = arg2;
	6137	}
	6138
	6139
	6140	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimation_mNumMeshChannels_get(void * jarg1) {
	6141	unsigned int jresult ;
	6142	aiAnimation arg1 = (aiAnimation ) 0 ;
	6143	unsigned int result;
	6144
	6145	arg1 = (aiAnimation *)jarg1;
	6146	result = (unsigned int) ((arg1)->mNumMeshChannels);
	6147	jresult = result;
	6148	return jresult;
	6149	}
	6150
	6151
	6152	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiAnimation() {
	6153	void * jresult ;
	6154	aiAnimation *result = 0 ;
	6155
	6156	result = (aiAnimation *)new aiAnimation();
	6157	jresult = (void *)result;
	6158	return jresult;
	6159	}
	6160
	6161
	6162	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiAnimation(void * jarg1) {
	6163	aiAnimation arg1 = (aiAnimation ) 0 ;
	6164
	6165	arg1 = (aiAnimation *)jarg1;
	6166	delete arg1;
	6167	}
	6168
	6169
	6170	SWIGEXPORT void * SWIGSTDCALL CSharp_aiAnimation_GetmChannels(void * jarg1) {
	6171	void * jresult ;
	6172	aiAnimation arg1 = (aiAnimation ) 0 ;
	6173	std::vector< aiNodeAnim * > *result = 0 ;
	6174
	6175	arg1 = (aiAnimation *)jarg1;
	6176	result = (std::vector< aiNodeAnim * > *)aiAnimation_GetmChannels(arg1);
	6177	jresult = (void *)result;
	6178	return jresult;
	6179	}
	6180
	6181
	6182	SWIGEXPORT void * SWIGSTDCALL CSharp_aiAnimation_GetmMeshChannels(void * jarg1) {
	6183	void * jresult ;
	6184	aiAnimation arg1 = (aiAnimation ) 0 ;
	6185	std::vector< aiMeshAnim * > *result = 0 ;
	6186
	6187	arg1 = (aiAnimation *)jarg1;
	6188	result = (std::vector< aiMeshAnim * > *)aiAnimation_GetmMeshChannels(arg1);
	6189	jresult = (void *)result;
	6190	return jresult;
	6191	}
	6192
	6193
	6194	SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_FACE_INDICES_get() {
	6195	int jresult ;
	6196	int result;
	6197
	6198	result = (int)(0x7fff);
	6199	jresult = result;
	6200	return jresult;
	6201	}
	6202
	6203
	6204	SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_BONE_WEIGHTS_get() {
	6205	int jresult ;
	6206	int result;
	6207
	6208	result = (int)(0x7fffffff);
	6209	jresult = result;
	6210	return jresult;
	6211	}
	6212
	6213
	6214	SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_VERTICES_get() {
	6215	int jresult ;
	6216	int result;
	6217
	6218	result = (int)(0x7fffffff);
	6219	jresult = result;
	6220	return jresult;
	6221	}
	6222
	6223
	6224	SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_FACES_get() {
	6225	int jresult ;
	6226	int result;
	6227
	6228	result = (int)(0x7fffffff);
	6229	jresult = result;
	6230	return jresult;
	6231	}
	6232
	6233
	6234	SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_NUMBER_OF_COLOR_SETS_get() {
	6235	int jresult ;
	6236	int result;
	6237
	6238	result = (int)(0x8);
	6239	jresult = result;
	6240	return jresult;
	6241	}
	6242
	6243
	6244	SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_NUMBER_OF_TEXTURECOORDS_get() {
	6245	int jresult ;
	6246	int result;
	6247
	6248	result = (int)(0x8);
	6249	jresult = result;
	6250	return jresult;
	6251	}
	6252
	6253
	6254	SWIGEXPORT void SWIGSTDCALL CSharp_aiFace_mNumIndices_set(void * jarg1, unsigned int jarg2) {
	6255	aiFace arg1 = (aiFace ) 0 ;
	6256	unsigned int arg2 ;
	6257
	6258	arg1 = (aiFace *)jarg1;
	6259	arg2 = (unsigned int)jarg2;
	6260	if (arg1) (arg1)->mNumIndices = arg2;
	6261	}
	6262
	6263
	6264	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiFace_mNumIndices_get(void * jarg1) {
	6265	unsigned int jresult ;
	6266	aiFace arg1 = (aiFace ) 0 ;
	6267	unsigned int result;
	6268
	6269	arg1 = (aiFace *)jarg1;
	6270	result = (unsigned int) ((arg1)->mNumIndices);
	6271	jresult = result;
	6272	return jresult;
	6273	}
	6274
	6275
	6276	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiFace__SWIG_0() {
	6277	void * jresult ;
	6278	aiFace *result = 0 ;
	6279
	6280	result = (aiFace *)new aiFace();
	6281	jresult = (void *)result;
	6282	return jresult;
	6283	}
	6284
	6285
	6286	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiFace(void * jarg1) {
	6287	aiFace arg1 = (aiFace ) 0 ;
	6288
	6289	arg1 = (aiFace *)jarg1;
	6290	delete arg1;
	6291	}
	6292
	6293
	6294	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiFace__SWIG_1(void * jarg1) {
	6295	void * jresult ;
	6296	aiFace *arg1 = 0 ;
	6297	aiFace *result = 0 ;
	6298
	6299	arg1 = (aiFace *)jarg1;
	6300	if (!arg1) {
	6301	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiFace const & type is null", 0);
	6302	return 0;
	6303	}
	6304	result = (aiFace )new aiFace((aiFace const &)arg1);
	6305	jresult = (void *)result;
	6306	return jresult;
	6307	}
	6308
	6309
	6310	SWIGEXPORT void * SWIGSTDCALL CSharp_aiFace___set__(void * jarg1, void * jarg2) {
	6311	void * jresult ;
	6312	aiFace arg1 = (aiFace ) 0 ;
	6313	aiFace *arg2 = 0 ;
	6314	aiFace *result = 0 ;
	6315
	6316	arg1 = (aiFace *)jarg1;
	6317	arg2 = (aiFace *)jarg2;
	6318	if (!arg2) {
	6319	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiFace const & type is null", 0);
	6320	return 0;
	6321	}
	6322	result = (aiFace ) &(arg1)->operator =((aiFace const &)arg2);
	6323	jresult = (void *)result;
	6324	return jresult;
	6325	}
	6326
	6327
	6328	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiFace___equal__(void * jarg1, void * jarg2) {
	6329	unsigned int jresult ;
	6330	aiFace arg1 = (aiFace ) 0 ;
	6331	aiFace *arg2 = 0 ;
	6332	bool result;
	6333
	6334	arg1 = (aiFace *)jarg1;
	6335	arg2 = (aiFace *)jarg2;
	6336	if (!arg2) {
	6337	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiFace const & type is null", 0);
	6338	return 0;
	6339	}
	6340	result = (bool)((aiFace const )arg1)->operator ==((aiFace const &)arg2);
	6341	jresult = result;
	6342	return jresult;
	6343	}
	6344
	6345
	6346	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiFace___nequal__(void * jarg1, void * jarg2) {
	6347	unsigned int jresult ;
	6348	aiFace arg1 = (aiFace ) 0 ;
	6349	aiFace *arg2 = 0 ;
	6350	bool result;
	6351
	6352	arg1 = (aiFace *)jarg1;
	6353	arg2 = (aiFace *)jarg2;
	6354	if (!arg2) {
	6355	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiFace const & type is null", 0);
	6356	return 0;
	6357	}
	6358	result = (bool)((aiFace const )arg1)->operator !=((aiFace const &)arg2);
	6359	jresult = result;
	6360	return jresult;
	6361	}
	6362
	6363
	6364	SWIGEXPORT void * SWIGSTDCALL CSharp_aiFace_GetmIndices(void * jarg1) {
	6365	void * jresult ;
	6366	aiFace arg1 = (aiFace ) 0 ;
	6367	std::vector< unsigned int > *result = 0 ;
	6368
	6369	arg1 = (aiFace *)jarg1;
	6370	result = (std::vector< unsigned int > *)aiFace_GetmIndices(arg1);
	6371	jresult = (void *)result;
	6372	return jresult;
	6373	}
	6374
	6375
	6376	SWIGEXPORT void SWIGSTDCALL CSharp_aiVertexWeight_mVertexId_set(void * jarg1, unsigned int jarg2) {
	6377	aiVertexWeight arg1 = (aiVertexWeight ) 0 ;
	6378	unsigned int arg2 ;
	6379
	6380	arg1 = (aiVertexWeight *)jarg1;
	6381	arg2 = (unsigned int)jarg2;
	6382	if (arg1) (arg1)->mVertexId = arg2;
	6383	}
	6384
	6385
	6386	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVertexWeight_mVertexId_get(void * jarg1) {
	6387	unsigned int jresult ;
	6388	aiVertexWeight arg1 = (aiVertexWeight ) 0 ;
	6389	unsigned int result;
	6390
	6391	arg1 = (aiVertexWeight *)jarg1;
	6392	result = (unsigned int) ((arg1)->mVertexId);
	6393	jresult = result;
	6394	return jresult;
	6395	}
	6396
	6397
	6398	SWIGEXPORT void SWIGSTDCALL CSharp_aiVertexWeight_mWeight_set(void * jarg1, float jarg2) {
	6399	aiVertexWeight arg1 = (aiVertexWeight ) 0 ;
	6400	float arg2 ;
	6401
	6402	arg1 = (aiVertexWeight *)jarg1;
	6403	arg2 = (float)jarg2;
	6404	if (arg1) (arg1)->mWeight = arg2;
	6405	}
	6406
	6407
	6408	SWIGEXPORT float SWIGSTDCALL CSharp_aiVertexWeight_mWeight_get(void * jarg1) {
	6409	float jresult ;
	6410	aiVertexWeight arg1 = (aiVertexWeight ) 0 ;
	6411	float result;
	6412
	6413	arg1 = (aiVertexWeight *)jarg1;
	6414	result = (float) ((arg1)->mWeight);
	6415	jresult = result;
	6416	return jresult;
	6417	}
	6418
	6419
	6420	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVertexWeight__SWIG_0() {
	6421	void * jresult ;
	6422	aiVertexWeight *result = 0 ;
	6423
	6424	result = (aiVertexWeight *)new aiVertexWeight();
	6425	jresult = (void *)result;
	6426	return jresult;
	6427	}
	6428
	6429
	6430	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVertexWeight__SWIG_1(unsigned int jarg1, float jarg2) {
	6431	void * jresult ;
	6432	unsigned int arg1 ;
	6433	float arg2 ;
	6434	aiVertexWeight *result = 0 ;
	6435
	6436	arg1 = (unsigned int)jarg1;
	6437	arg2 = (float)jarg2;
	6438	result = (aiVertexWeight *)new aiVertexWeight(arg1,arg2);
	6439	jresult = (void *)result;
	6440	return jresult;
	6441	}
	6442
	6443
	6444	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiVertexWeight(void * jarg1) {
	6445	aiVertexWeight arg1 = (aiVertexWeight ) 0 ;
	6446
	6447	arg1 = (aiVertexWeight *)jarg1;
	6448	delete arg1;
	6449	}
	6450
	6451
	6452	SWIGEXPORT void SWIGSTDCALL CSharp_aiBone_mName_set(void * jarg1, void * jarg2) {
	6453	aiBone arg1 = (aiBone ) 0 ;
	6454	aiString arg2 = (aiString ) 0 ;
	6455
	6456	arg1 = (aiBone *)jarg1;
	6457	arg2 = (aiString *)jarg2;
	6458	if (arg1) (arg1)->mName = *arg2;
	6459	}
	6460
	6461
	6462	SWIGEXPORT void * SWIGSTDCALL CSharp_aiBone_mName_get(void * jarg1) {
	6463	void * jresult ;
	6464	aiBone arg1 = (aiBone ) 0 ;
	6465	aiString *result = 0 ;
	6466
	6467	arg1 = (aiBone *)jarg1;
	6468	result = (aiString *)& ((arg1)->mName);
	6469	jresult = (void *)result;
	6470	return jresult;
	6471	}
	6472
	6473
	6474	SWIGEXPORT void SWIGSTDCALL CSharp_aiBone_mNumWeights_set(void * jarg1, unsigned int jarg2) {
	6475	aiBone arg1 = (aiBone ) 0 ;
	6476	unsigned int arg2 ;
	6477
	6478	arg1 = (aiBone *)jarg1;
	6479	arg2 = (unsigned int)jarg2;
	6480	if (arg1) (arg1)->mNumWeights = arg2;
	6481	}
	6482
	6483
	6484	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiBone_mNumWeights_get(void * jarg1) {
	6485	unsigned int jresult ;
	6486	aiBone arg1 = (aiBone ) 0 ;
	6487	unsigned int result;
	6488
	6489	arg1 = (aiBone *)jarg1;
	6490	result = (unsigned int) ((arg1)->mNumWeights);
	6491	jresult = result;
	6492	return jresult;
	6493	}
	6494
	6495
	6496	SWIGEXPORT void SWIGSTDCALL CSharp_aiBone_mOffsetMatrix_set(void * jarg1, void * jarg2) {
	6497	aiBone arg1 = (aiBone ) 0 ;
	6498	aiMatrix4x4 arg2 = (aiMatrix4x4 ) 0 ;
	6499
	6500	arg1 = (aiBone *)jarg1;
	6501	arg2 = (aiMatrix4x4 *)jarg2;
	6502	if (arg1) (arg1)->mOffsetMatrix = *arg2;
	6503	}
	6504
	6505
	6506	SWIGEXPORT void * SWIGSTDCALL CSharp_aiBone_mOffsetMatrix_get(void * jarg1) {
	6507	void * jresult ;
	6508	aiBone arg1 = (aiBone ) 0 ;
	6509	aiMatrix4x4 *result = 0 ;
	6510
	6511	arg1 = (aiBone *)jarg1;
	6512	result = (aiMatrix4x4 *)& ((arg1)->mOffsetMatrix);
	6513	jresult = (void *)result;
	6514	return jresult;
	6515	}
	6516
	6517
	6518	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiBone__SWIG_0() {
	6519	void * jresult ;
	6520	aiBone *result = 0 ;
	6521
	6522	result = (aiBone *)new aiBone();
	6523	jresult = (void *)result;
	6524	return jresult;
	6525	}
	6526
	6527
	6528	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiBone__SWIG_1(void * jarg1) {
	6529	void * jresult ;
	6530	aiBone *arg1 = 0 ;
	6531	aiBone *result = 0 ;
	6532
	6533	arg1 = (aiBone *)jarg1;
	6534	if (!arg1) {
	6535	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiBone const & type is null", 0);
	6536	return 0;
	6537	}
	6538	result = (aiBone )new aiBone((aiBone const &)arg1);
	6539	jresult = (void *)result;
	6540	return jresult;
	6541	}
	6542
	6543
	6544	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiBone(void * jarg1) {
	6545	aiBone arg1 = (aiBone ) 0 ;
	6546
	6547	arg1 = (aiBone *)jarg1;
	6548	delete arg1;
	6549	}
	6550
	6551
	6552	SWIGEXPORT void * SWIGSTDCALL CSharp_aiBone_GetmWeights(void * jarg1) {
	6553	void * jresult ;
	6554	aiBone arg1 = (aiBone ) 0 ;
	6555	std::vector< aiVertexWeight * > *result = 0 ;
	6556
	6557	arg1 = (aiBone *)jarg1;
	6558	result = (std::vector< aiVertexWeight * > *)aiBone_GetmWeights(arg1);
	6559	jresult = (void *)result;
	6560	return jresult;
	6561	}
	6562
	6563
	6564	SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimMesh_mBitangents_set(void * jarg1, void * jarg2) {
	6565	aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
	6566	aiVector3D arg2 = (aiVector3D ) 0 ;
	6567
	6568	arg1 = (aiAnimMesh *)jarg1;
	6569	arg2 = (aiVector3D *)jarg2;
	6570	if (arg1) (arg1)->mBitangents = arg2;
	6571	}
	6572
	6573
	6574	SWIGEXPORT void * SWIGSTDCALL CSharp_aiAnimMesh_mBitangents_get(void * jarg1) {
	6575	void * jresult ;
	6576	aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
	6577	aiVector3D *result = 0 ;
	6578
	6579	arg1 = (aiAnimMesh *)jarg1;
	6580	result = (aiVector3D *) ((arg1)->mBitangents);
	6581	jresult = (void *)result;
	6582	return jresult;
	6583	}
	6584
	6585
	6586	SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimMesh_mNumVertices_set(void * jarg1, unsigned int jarg2) {
	6587	aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
	6588	unsigned int arg2 ;
	6589
	6590	arg1 = (aiAnimMesh *)jarg1;
	6591	arg2 = (unsigned int)jarg2;
	6592	if (arg1) (arg1)->mNumVertices = arg2;
	6593	}
	6594
	6595
	6596	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_mNumVertices_get(void * jarg1) {
	6597	unsigned int jresult ;
	6598	aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
	6599	unsigned int result;
	6600
	6601	arg1 = (aiAnimMesh *)jarg1;
	6602	result = (unsigned int) ((arg1)->mNumVertices);
	6603	jresult = result;
	6604	return jresult;
	6605	}
	6606
	6607
	6608	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiAnimMesh() {
	6609	void * jresult ;
	6610	aiAnimMesh *result = 0 ;
	6611
	6612	result = (aiAnimMesh *)new aiAnimMesh();
	6613	jresult = (void *)result;
	6614	return jresult;
	6615	}
	6616
	6617
	6618	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiAnimMesh(void * jarg1) {
	6619	aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
	6620
	6621	arg1 = (aiAnimMesh *)jarg1;
	6622	delete arg1;
	6623	}
	6624
	6625
	6626	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_HasPositions(void * jarg1) {
	6627	unsigned int jresult ;
	6628	aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
	6629	bool result;
	6630
	6631	arg1 = (aiAnimMesh *)jarg1;
	6632	result = (bool)((aiAnimMesh const *)arg1)->HasPositions();
	6633	jresult = result;
	6634	return jresult;
	6635	}
	6636
	6637
	6638	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_HasNormals(void * jarg1) {
	6639	unsigned int jresult ;
	6640	aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
	6641	bool result;
	6642
	6643	arg1 = (aiAnimMesh *)jarg1;
	6644	result = (bool)((aiAnimMesh const *)arg1)->HasNormals();
	6645	jresult = result;
	6646	return jresult;
	6647	}
	6648
	6649
	6650	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_HasTangentsAndBitangents(void * jarg1) {
	6651	unsigned int jresult ;
	6652	aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
	6653	bool result;
	6654
	6655	arg1 = (aiAnimMesh *)jarg1;
	6656	result = (bool)((aiAnimMesh const *)arg1)->HasTangentsAndBitangents();
	6657	jresult = result;
	6658	return jresult;
	6659	}
	6660
	6661
	6662	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_HasVertexColors(void * jarg1, unsigned int jarg2) {
	6663	unsigned int jresult ;
	6664	aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
	6665	unsigned int arg2 ;
	6666	bool result;
	6667
	6668	arg1 = (aiAnimMesh *)jarg1;
	6669	arg2 = (unsigned int)jarg2;
	6670	result = (bool)((aiAnimMesh const *)arg1)->HasVertexColors(arg2);
	6671	jresult = result;
	6672	return jresult;
	6673	}
	6674
	6675
	6676	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_HasTextureCoords(void * jarg1, unsigned int jarg2) {
	6677	unsigned int jresult ;
	6678	aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
	6679	unsigned int arg2 ;
	6680	bool result;
	6681
	6682	arg1 = (aiAnimMesh *)jarg1;
	6683	arg2 = (unsigned int)jarg2;
	6684	result = (bool)((aiAnimMesh const *)arg1)->HasTextureCoords(arg2);
	6685	jresult = result;
	6686	return jresult;
	6687	}
	6688
	6689
	6690	SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mPrimitiveTypes_set(void * jarg1, unsigned int jarg2) {
	6691	aiMesh arg1 = (aiMesh ) 0 ;
	6692	unsigned int arg2 ;
	6693
	6694	arg1 = (aiMesh *)jarg1;
	6695	arg2 = (unsigned int)jarg2;
	6696	if (arg1) (arg1)->mPrimitiveTypes = arg2;
	6697	}
	6698
	6699
	6700	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mPrimitiveTypes_get(void * jarg1) {
	6701	unsigned int jresult ;
	6702	aiMesh arg1 = (aiMesh ) 0 ;
	6703	unsigned int result;
	6704
	6705	arg1 = (aiMesh *)jarg1;
	6706	result = (unsigned int) ((arg1)->mPrimitiveTypes);
	6707	jresult = result;
	6708	return jresult;
	6709	}
	6710
	6711
	6712	SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mNumVertices_set(void * jarg1, unsigned int jarg2) {
	6713	aiMesh arg1 = (aiMesh ) 0 ;
	6714	unsigned int arg2 ;
	6715
	6716	arg1 = (aiMesh *)jarg1;
	6717	arg2 = (unsigned int)jarg2;
	6718	if (arg1) (arg1)->mNumVertices = arg2;
	6719	}
	6720
	6721
	6722	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mNumVertices_get(void * jarg1) {
	6723	unsigned int jresult ;
	6724	aiMesh arg1 = (aiMesh ) 0 ;
	6725	unsigned int result;
	6726
	6727	arg1 = (aiMesh *)jarg1;
	6728	result = (unsigned int) ((arg1)->mNumVertices);
	6729	jresult = result;
	6730	return jresult;
	6731	}
	6732
	6733
	6734	SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mNumFaces_set(void * jarg1, unsigned int jarg2) {
	6735	aiMesh arg1 = (aiMesh ) 0 ;
	6736	unsigned int arg2 ;
	6737
	6738	arg1 = (aiMesh *)jarg1;
	6739	arg2 = (unsigned int)jarg2;
	6740	if (arg1) (arg1)->mNumFaces = arg2;
	6741	}
	6742
	6743
	6744	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mNumFaces_get(void * jarg1) {
	6745	unsigned int jresult ;
	6746	aiMesh arg1 = (aiMesh ) 0 ;
	6747	unsigned int result;
	6748
	6749	arg1 = (aiMesh *)jarg1;
	6750	result = (unsigned int) ((arg1)->mNumFaces);
	6751	jresult = result;
	6752	return jresult;
	6753	}
	6754
	6755
	6756	SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mNumBones_set(void * jarg1, unsigned int jarg2) {
	6757	aiMesh arg1 = (aiMesh ) 0 ;
	6758	unsigned int arg2 ;
	6759
	6760	arg1 = (aiMesh *)jarg1;
	6761	arg2 = (unsigned int)jarg2;
	6762	if (arg1) (arg1)->mNumBones = arg2;
	6763	}
	6764
	6765
	6766	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mNumBones_get(void * jarg1) {
	6767	unsigned int jresult ;
	6768	aiMesh arg1 = (aiMesh ) 0 ;
	6769	unsigned int result;
	6770
	6771	arg1 = (aiMesh *)jarg1;
	6772	result = (unsigned int) ((arg1)->mNumBones);
	6773	jresult = result;
	6774	return jresult;
	6775	}
	6776
	6777
	6778	SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mMaterialIndex_set(void * jarg1, unsigned int jarg2) {
	6779	aiMesh arg1 = (aiMesh ) 0 ;
	6780	unsigned int arg2 ;
	6781
	6782	arg1 = (aiMesh *)jarg1;
	6783	arg2 = (unsigned int)jarg2;
	6784	if (arg1) (arg1)->mMaterialIndex = arg2;
	6785	}
	6786
	6787
	6788	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mMaterialIndex_get(void * jarg1) {
	6789	unsigned int jresult ;
	6790	aiMesh arg1 = (aiMesh ) 0 ;
	6791	unsigned int result;
	6792
	6793	arg1 = (aiMesh *)jarg1;
	6794	result = (unsigned int) ((arg1)->mMaterialIndex);
	6795	jresult = result;
	6796	return jresult;
	6797	}
	6798
	6799
	6800	SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mName_set(void * jarg1, void * jarg2) {
	6801	aiMesh arg1 = (aiMesh ) 0 ;
	6802	aiString arg2 = (aiString ) 0 ;
	6803
	6804	arg1 = (aiMesh *)jarg1;
	6805	arg2 = (aiString *)jarg2;
	6806	if (arg1) (arg1)->mName = *arg2;
	6807	}
	6808
	6809
	6810	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_mName_get(void * jarg1) {
	6811	void * jresult ;
	6812	aiMesh arg1 = (aiMesh ) 0 ;
	6813	aiString *result = 0 ;
	6814
	6815	arg1 = (aiMesh *)jarg1;
	6816	result = (aiString *)& ((arg1)->mName);
	6817	jresult = (void *)result;
	6818	return jresult;
	6819	}
	6820
	6821
	6822	SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mNumAnimMeshes_set(void * jarg1, unsigned int jarg2) {
	6823	aiMesh arg1 = (aiMesh ) 0 ;
	6824	unsigned int arg2 ;
	6825
	6826	arg1 = (aiMesh *)jarg1;
	6827	arg2 = (unsigned int)jarg2;
	6828	if (arg1) (arg1)->mNumAnimMeshes = arg2;
	6829	}
	6830
	6831
	6832	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mNumAnimMeshes_get(void * jarg1) {
	6833	unsigned int jresult ;
	6834	aiMesh arg1 = (aiMesh ) 0 ;
	6835	unsigned int result;
	6836
	6837	arg1 = (aiMesh *)jarg1;
	6838	result = (unsigned int) ((arg1)->mNumAnimMeshes);
	6839	jresult = result;
	6840	return jresult;
	6841	}
	6842
	6843
	6844	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMesh() {
	6845	void * jresult ;
	6846	aiMesh *result = 0 ;
	6847
	6848	result = (aiMesh *)new aiMesh();
	6849	jresult = (void *)result;
	6850	return jresult;
	6851	}
	6852
	6853
	6854	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMesh(void * jarg1) {
	6855	aiMesh arg1 = (aiMesh ) 0 ;
	6856
	6857	arg1 = (aiMesh *)jarg1;
	6858	delete arg1;
	6859	}
	6860
	6861
	6862	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasPositions(void * jarg1) {
	6863	unsigned int jresult ;
	6864	aiMesh arg1 = (aiMesh ) 0 ;
	6865	bool result;
	6866
	6867	arg1 = (aiMesh *)jarg1;
	6868	result = (bool)((aiMesh const *)arg1)->HasPositions();
	6869	jresult = result;
	6870	return jresult;
	6871	}
	6872
	6873
	6874	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasFaces(void * jarg1) {
	6875	unsigned int jresult ;
	6876	aiMesh arg1 = (aiMesh ) 0 ;
	6877	bool result;
	6878
	6879	arg1 = (aiMesh *)jarg1;
	6880	result = (bool)((aiMesh const *)arg1)->HasFaces();
	6881	jresult = result;
	6882	return jresult;
	6883	}
	6884
	6885
	6886	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasNormals(void * jarg1) {
	6887	unsigned int jresult ;
	6888	aiMesh arg1 = (aiMesh ) 0 ;
	6889	bool result;
	6890
	6891	arg1 = (aiMesh *)jarg1;
	6892	result = (bool)((aiMesh const *)arg1)->HasNormals();
	6893	jresult = result;
	6894	return jresult;
	6895	}
	6896
	6897
	6898	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasTangentsAndBitangents(void * jarg1) {
	6899	unsigned int jresult ;
	6900	aiMesh arg1 = (aiMesh ) 0 ;
	6901	bool result;
	6902
	6903	arg1 = (aiMesh *)jarg1;
	6904	result = (bool)((aiMesh const *)arg1)->HasTangentsAndBitangents();
	6905	jresult = result;
	6906	return jresult;
	6907	}
	6908
	6909
	6910	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasVertexColors(void * jarg1, unsigned int jarg2) {
	6911	unsigned int jresult ;
	6912	aiMesh arg1 = (aiMesh ) 0 ;
	6913	unsigned int arg2 ;
	6914	bool result;
	6915
	6916	arg1 = (aiMesh *)jarg1;
	6917	arg2 = (unsigned int)jarg2;
	6918	result = (bool)((aiMesh const *)arg1)->HasVertexColors(arg2);
	6919	jresult = result;
	6920	return jresult;
	6921	}
	6922
	6923
	6924	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasTextureCoords(void * jarg1, unsigned int jarg2) {
	6925	unsigned int jresult ;
	6926	aiMesh arg1 = (aiMesh ) 0 ;
	6927	unsigned int arg2 ;
	6928	bool result;
	6929
	6930	arg1 = (aiMesh *)jarg1;
	6931	arg2 = (unsigned int)jarg2;
	6932	result = (bool)((aiMesh const *)arg1)->HasTextureCoords(arg2);
	6933	jresult = result;
	6934	return jresult;
	6935	}
	6936
	6937
	6938	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_GetNumUVChannels(void * jarg1) {
	6939	unsigned int jresult ;
	6940	aiMesh arg1 = (aiMesh ) 0 ;
	6941	unsigned int result;
	6942
	6943	arg1 = (aiMesh *)jarg1;
	6944	result = (unsigned int)((aiMesh const *)arg1)->GetNumUVChannels();
	6945	jresult = result;
	6946	return jresult;
	6947	}
	6948
	6949
	6950	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_GetNumColorChannels(void * jarg1) {
	6951	unsigned int jresult ;
	6952	aiMesh arg1 = (aiMesh ) 0 ;
	6953	unsigned int result;
	6954
	6955	arg1 = (aiMesh *)jarg1;
	6956	result = (unsigned int)((aiMesh const *)arg1)->GetNumColorChannels();
	6957	jresult = result;
	6958	return jresult;
	6959	}
	6960
	6961
	6962	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasBones(void * jarg1) {
	6963	unsigned int jresult ;
	6964	aiMesh arg1 = (aiMesh ) 0 ;
	6965	bool result;
	6966
	6967	arg1 = (aiMesh *)jarg1;
	6968	result = (bool)((aiMesh const *)arg1)->HasBones();
	6969	jresult = result;
	6970	return jresult;
	6971	}
	6972
	6973
	6974	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmAnimMeshes(void * jarg1) {
	6975	void * jresult ;
	6976	aiMesh arg1 = (aiMesh ) 0 ;
	6977	std::vector< aiAnimMesh * > *result = 0 ;
	6978
	6979	arg1 = (aiMesh *)jarg1;
	6980	result = (std::vector< aiAnimMesh * > *)aiMesh_GetmAnimMeshes(arg1);
	6981	jresult = (void *)result;
	6982	return jresult;
	6983	}
	6984
	6985
	6986	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmBitangents(void * jarg1) {
	6987	void * jresult ;
	6988	aiMesh arg1 = (aiMesh ) 0 ;
	6989	std::vector< aiVector3D * > *result = 0 ;
	6990
	6991	arg1 = (aiMesh *)jarg1;
	6992	result = (std::vector< aiVector3D * > *)aiMesh_GetmBitangents(arg1);
	6993	jresult = (void *)result;
	6994	return jresult;
	6995	}
	6996
	6997
	6998	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmBones(void * jarg1) {
	6999	void * jresult ;
	7000	aiMesh arg1 = (aiMesh ) 0 ;
	7001	std::vector< aiBone * > *result = 0 ;
	7002
	7003	arg1 = (aiMesh *)jarg1;
	7004	result = (std::vector< aiBone * > *)aiMesh_GetmBones(arg1);
	7005	jresult = (void *)result;
	7006	return jresult;
	7007	}
	7008
	7009
	7010	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmColors(void * jarg1) {
	7011	void * jresult ;
	7012	aiMesh arg1 = (aiMesh ) 0 ;
	7013	std::vector< std::vector< aiColor4D * > > *result = 0 ;
	7014
	7015	arg1 = (aiMesh *)jarg1;
	7016	result = (std::vector< std::vector< aiColor4D * > > *)aiMesh_GetmColors(arg1);
	7017	jresult = (void *)result;
	7018	return jresult;
	7019	}
	7020
	7021
	7022	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmFaces(void * jarg1) {
	7023	void * jresult ;
	7024	aiMesh arg1 = (aiMesh ) 0 ;
	7025	std::vector< aiFace * > *result = 0 ;
	7026
	7027	arg1 = (aiMesh *)jarg1;
	7028	result = (std::vector< aiFace * > *)aiMesh_GetmFaces(arg1);
	7029	jresult = (void *)result;
	7030	return jresult;
	7031	}
	7032
	7033
	7034	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmNormals(void * jarg1) {
	7035	void * jresult ;
	7036	aiMesh arg1 = (aiMesh ) 0 ;
	7037	std::vector< aiVector3D * > *result = 0 ;
	7038
	7039	arg1 = (aiMesh *)jarg1;
	7040	result = (std::vector< aiVector3D * > *)aiMesh_GetmNormals(arg1);
	7041	jresult = (void *)result;
	7042	return jresult;
	7043	}
	7044
	7045
	7046	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmTangents(void * jarg1) {
	7047	void * jresult ;
	7048	aiMesh arg1 = (aiMesh ) 0 ;
	7049	std::vector< aiVector3D * > *result = 0 ;
	7050
	7051	arg1 = (aiMesh *)jarg1;
	7052	result = (std::vector< aiVector3D * > *)aiMesh_GetmTangents(arg1);
	7053	jresult = (void *)result;
	7054	return jresult;
	7055	}
	7056
	7057
	7058	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmTextureCoords(void * jarg1) {
	7059	void * jresult ;
	7060	aiMesh arg1 = (aiMesh ) 0 ;
	7061	std::vector< std::vector< aiVector3D * > > *result = 0 ;
	7062
	7063	arg1 = (aiMesh *)jarg1;
	7064	result = (std::vector< std::vector< aiVector3D * > > *)aiMesh_GetmTextureCoords(arg1);
	7065	jresult = (void *)result;
	7066	return jresult;
	7067	}
	7068
	7069
	7070	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmNumUVComponents(void * jarg1) {
	7071	void * jresult ;
	7072	aiMesh arg1 = (aiMesh ) 0 ;
	7073	std::vector< unsigned int > *result = 0 ;
	7074
	7075	arg1 = (aiMesh *)jarg1;
	7076	result = (std::vector< unsigned int > *)aiMesh_GetmNumUVComponents(arg1);
	7077	jresult = (void *)result;
	7078	return jresult;
	7079	}
	7080
	7081
	7082	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmVertices(void * jarg1) {
	7083	void * jresult ;
	7084	aiMesh arg1 = (aiMesh ) 0 ;
	7085	std::vector< aiVector3D * > *result = 0 ;
	7086
	7087	arg1 = (aiMesh *)jarg1;
	7088	result = (std::vector< aiVector3D * > *)aiMesh_GetmVertices(arg1);
	7089	jresult = (void *)result;
	7090	return jresult;
	7091	}
	7092
	7093
	7094	SWIGEXPORT char * SWIGSTDCALL CSharp_AI_DEFAULT_MATERIAL_NAME_get() {
	7095	char * jresult ;
	7096	char *result = 0 ;
	7097
	7098	result = (char *)("DefaultMaterial");
	7099	jresult = SWIG_csharp_string_callback((const char *)result);
	7100	return jresult;
	7101	}
	7102
	7103
	7104	SWIGEXPORT void SWIGSTDCALL CSharp_aiUVTransform_mTranslation_set(void * jarg1, void * jarg2) {
	7105	aiUVTransform arg1 = (aiUVTransform ) 0 ;
	7106	aiVector2D arg2 = (aiVector2D ) 0 ;
	7107
	7108	arg1 = (aiUVTransform *)jarg1;
	7109	arg2 = (aiVector2D *)jarg2;
	7110	if (arg1) (arg1)->mTranslation = *arg2;
	7111	}
	7112
	7113
	7114	SWIGEXPORT void * SWIGSTDCALL CSharp_aiUVTransform_mTranslation_get(void * jarg1) {
	7115	void * jresult ;
	7116	aiUVTransform arg1 = (aiUVTransform ) 0 ;
4730	7117	aiVector2D *result = 0 ;
4731	7118
4732		result = (aiVector2D *)new aiVector2D();
4733		jresult = (void *)result;
4734		return jresult;
4735		}
4736
4737
4738		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector2D__SWIG_1(float jarg1, float jarg2) {
4739		void * jresult ;
4740		float arg1 ;
	7119	arg1 = (aiUVTransform *)jarg1;
	7120	result = (aiVector2D *)& ((arg1)->mTranslation);
	7121	jresult = (void *)result;
	7122	return jresult;
	7123	}
	7124
	7125
	7126	SWIGEXPORT void SWIGSTDCALL CSharp_aiUVTransform_mScaling_set(void * jarg1, void * jarg2) {
	7127	aiUVTransform arg1 = (aiUVTransform ) 0 ;
	7128	aiVector2D arg2 = (aiVector2D ) 0 ;
	7129
	7130	arg1 = (aiUVTransform *)jarg1;
	7131	arg2 = (aiVector2D *)jarg2;
	7132	if (arg1) (arg1)->mScaling = *arg2;
	7133	}
	7134
	7135
	7136	SWIGEXPORT void * SWIGSTDCALL CSharp_aiUVTransform_mScaling_get(void * jarg1) {
	7137	void * jresult ;
	7138	aiUVTransform arg1 = (aiUVTransform ) 0 ;
	7139	aiVector2D *result = 0 ;
	7140
	7141	arg1 = (aiUVTransform *)jarg1;
	7142	result = (aiVector2D *)& ((arg1)->mScaling);
	7143	jresult = (void *)result;
	7144	return jresult;
	7145	}
	7146
	7147
	7148	SWIGEXPORT void SWIGSTDCALL CSharp_aiUVTransform_mRotation_set(void * jarg1, float jarg2) {
	7149	aiUVTransform arg1 = (aiUVTransform ) 0 ;
4741	7150	float arg2 ;
4742		aiVector2D *result = 0 ;
4743
4744		arg1 = (float)jarg1;
	7151
	7152	arg1 = (aiUVTransform *)jarg1;
4745	7153	arg2 = (float)jarg2;
4746		result = (aiVector2D *)new aiVector2D(arg1,arg2);
4747		jresult = (void *)result;
4748		return jresult;
4749		}
4750
4751
4752		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector2D__SWIG_2(float jarg1) {
4753		void * jresult ;
4754		float arg1 ;
4755		aiVector2D *result = 0 ;
4756
4757		arg1 = (float)jarg1;
4758		result = (aiVector2D *)new aiVector2D(arg1);
4759		jresult = (void *)result;
4760		return jresult;
4761		}
4762
4763
4764		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector2D__SWIG_3(void * jarg1) {
4765		void * jresult ;
4766		aiVector2D *arg1 = 0 ;
4767		aiVector2D *result = 0 ;
4768
4769		arg1 = (aiVector2D *)jarg1;
	7154	if (arg1) (arg1)->mRotation = arg2;
	7155	}
	7156
	7157
	7158	SWIGEXPORT float SWIGSTDCALL CSharp_aiUVTransform_mRotation_get(void * jarg1) {
	7159	float jresult ;
	7160	aiUVTransform arg1 = (aiUVTransform ) 0 ;
	7161	float result;
	7162
	7163	arg1 = (aiUVTransform *)jarg1;
	7164	result = (float) ((arg1)->mRotation);
	7165	jresult = result;
	7166	return jresult;
	7167	}
	7168
	7169
	7170	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiUVTransform() {
	7171	void * jresult ;
	7172	aiUVTransform *result = 0 ;
	7173
	7174	result = (aiUVTransform *)new aiUVTransform();
	7175	jresult = (void *)result;
	7176	return jresult;
	7177	}
	7178
	7179
	7180	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiUVTransform(void * jarg1) {
	7181	aiUVTransform arg1 = (aiUVTransform ) 0 ;
	7182
	7183	arg1 = (aiUVTransform *)jarg1;
	7184	delete arg1;
	7185	}
	7186
	7187
	7188	SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mKey_set(void * jarg1, void * jarg2) {
	7189	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7190	aiString arg2 = (aiString ) 0 ;
	7191
	7192	arg1 = (aiMaterialProperty *)jarg1;
	7193	arg2 = (aiString *)jarg2;
	7194	if (arg1) (arg1)->mKey = *arg2;
	7195	}
	7196
	7197
	7198	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMaterialProperty_mKey_get(void * jarg1) {
	7199	void * jresult ;
	7200	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7201	aiString *result = 0 ;
	7202
	7203	arg1 = (aiMaterialProperty *)jarg1;
	7204	result = (aiString *)& ((arg1)->mKey);
	7205	jresult = (void *)result;
	7206	return jresult;
	7207	}
	7208
	7209
	7210	SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mSemantic_set(void * jarg1, unsigned int jarg2) {
	7211	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7212	unsigned int arg2 ;
	7213
	7214	arg1 = (aiMaterialProperty *)jarg1;
	7215	arg2 = (unsigned int)jarg2;
	7216	if (arg1) (arg1)->mSemantic = arg2;
	7217	}
	7218
	7219
	7220	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterialProperty_mSemantic_get(void * jarg1) {
	7221	unsigned int jresult ;
	7222	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7223	unsigned int result;
	7224
	7225	arg1 = (aiMaterialProperty *)jarg1;
	7226	result = (unsigned int) ((arg1)->mSemantic);
	7227	jresult = result;
	7228	return jresult;
	7229	}
	7230
	7231
	7232	SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mIndex_set(void * jarg1, unsigned int jarg2) {
	7233	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7234	unsigned int arg2 ;
	7235
	7236	arg1 = (aiMaterialProperty *)jarg1;
	7237	arg2 = (unsigned int)jarg2;
	7238	if (arg1) (arg1)->mIndex = arg2;
	7239	}
	7240
	7241
	7242	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterialProperty_mIndex_get(void * jarg1) {
	7243	unsigned int jresult ;
	7244	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7245	unsigned int result;
	7246
	7247	arg1 = (aiMaterialProperty *)jarg1;
	7248	result = (unsigned int) ((arg1)->mIndex);
	7249	jresult = result;
	7250	return jresult;
	7251	}
	7252
	7253
	7254	SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mDataLength_set(void * jarg1, unsigned int jarg2) {
	7255	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7256	unsigned int arg2 ;
	7257
	7258	arg1 = (aiMaterialProperty *)jarg1;
	7259	arg2 = (unsigned int)jarg2;
	7260	if (arg1) (arg1)->mDataLength = arg2;
	7261	}
	7262
	7263
	7264	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterialProperty_mDataLength_get(void * jarg1) {
	7265	unsigned int jresult ;
	7266	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7267	unsigned int result;
	7268
	7269	arg1 = (aiMaterialProperty *)jarg1;
	7270	result = (unsigned int) ((arg1)->mDataLength);
	7271	jresult = result;
	7272	return jresult;
	7273	}
	7274
	7275
	7276	SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mType_set(void * jarg1, int jarg2) {
	7277	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7278	aiPropertyTypeInfo arg2 ;
	7279
	7280	arg1 = (aiMaterialProperty *)jarg1;
	7281	arg2 = (aiPropertyTypeInfo)jarg2;
	7282	if (arg1) (arg1)->mType = arg2;
	7283	}
	7284
	7285
	7286	SWIGEXPORT int SWIGSTDCALL CSharp_aiMaterialProperty_mType_get(void * jarg1) {
	7287	int jresult ;
	7288	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7289	aiPropertyTypeInfo result;
	7290
	7291	arg1 = (aiMaterialProperty *)jarg1;
	7292	result = (aiPropertyTypeInfo) ((arg1)->mType);
	7293	jresult = result;
	7294	return jresult;
	7295	}
	7296
	7297
	7298	SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mData_set(void * jarg1, char * jarg2) {
	7299	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7300	char arg2 = (char ) 0 ;
	7301
	7302	arg1 = (aiMaterialProperty *)jarg1;
	7303	arg2 = (char *)jarg2;
	7304	{
	7305	delete [] arg1->mData;
	7306	if (arg2) {
	7307	arg1->mData = (char ) (new char[strlen((const char )arg2)+1]);
	7308	strcpy((char )arg1->mData, (const char )arg2);
	7309	} else {
	7310	arg1->mData = 0;
	7311	}
	7312	}
	7313	}
	7314
	7315
	7316	SWIGEXPORT char * SWIGSTDCALL CSharp_aiMaterialProperty_mData_get(void * jarg1) {
	7317	char * jresult ;
	7318	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7319	char *result = 0 ;
	7320
	7321	arg1 = (aiMaterialProperty *)jarg1;
	7322	result = (char *) ((arg1)->mData);
	7323	jresult = SWIG_csharp_string_callback((const char *)result);
	7324	return jresult;
	7325	}
	7326
	7327
	7328	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMaterialProperty() {
	7329	void * jresult ;
	7330	aiMaterialProperty *result = 0 ;
	7331
	7332	result = (aiMaterialProperty *)new aiMaterialProperty();
	7333	jresult = (void *)result;
	7334	return jresult;
	7335	}
	7336
	7337
	7338	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMaterialProperty(void * jarg1) {
	7339	aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
	7340
	7341	arg1 = (aiMaterialProperty *)jarg1;
	7342	delete arg1;
	7343	}
	7344
	7345
	7346	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMaterial() {
	7347	void * jresult ;
	7348	aiMaterial *result = 0 ;
	7349
	7350	result = (aiMaterial *)new aiMaterial();
	7351	jresult = (void *)result;
	7352	return jresult;
	7353	}
	7354
	7355
	7356	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMaterial(void * jarg1) {
	7357	aiMaterial arg1 = (aiMaterial ) 0 ;
	7358
	7359	arg1 = (aiMaterial *)jarg1;
	7360	delete arg1;
	7361	}
	7362
	7363
	7364	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureCount(void * jarg1, int jarg2) {
	7365	unsigned int jresult ;
	7366	aiMaterial arg1 = (aiMaterial ) 0 ;
	7367	aiTextureType arg2 ;
	7368	unsigned int result;
	7369
	7370	arg1 = (aiMaterial *)jarg1;
	7371	arg2 = (aiTextureType)jarg2;
	7372	result = (unsigned int)((aiMaterial const *)arg1)->GetTextureCount(arg2);
	7373	jresult = result;
	7374	return jresult;
	7375	}
	7376
	7377
	7378	SWIGEXPORT int SWIGSTDCALL CSharp_aiMaterial_AddBinaryProperty(void * jarg1, void * jarg2, unsigned int jarg3, char * jarg4, unsigned int jarg5, unsigned int jarg6, int jarg7) {
	7379	int jresult ;
	7380	aiMaterial arg1 = (aiMaterial ) 0 ;
	7381	void arg2 = (void ) 0 ;
	7382	unsigned int arg3 ;
	7383	char arg4 = (char ) 0 ;
	7384	unsigned int arg5 ;
	7385	unsigned int arg6 ;
	7386	aiPropertyTypeInfo arg7 ;
	7387	aiReturn result;
	7388
	7389	arg1 = (aiMaterial *)jarg1;
	7390	arg2 = (void *)jarg2;
	7391	arg3 = (unsigned int)jarg3;
	7392	arg4 = (char *)jarg4;
	7393	arg5 = (unsigned int)jarg5;
	7394	arg6 = (unsigned int)jarg6;
	7395	arg7 = (aiPropertyTypeInfo)jarg7;
	7396	result = (aiReturn)(arg1)->AddBinaryProperty((void const )arg2,arg3,(char const )arg4,arg5,arg6,arg7);
	7397	jresult = result;
	7398	return jresult;
	7399	}
	7400
	7401
	7402	SWIGEXPORT int SWIGSTDCALL CSharp_aiMaterial_AddProperty__SWIG_0(void * jarg1, void * jarg2, char * jarg3, unsigned int jarg4, unsigned int jarg5) {
	7403	int jresult ;
	7404	aiMaterial arg1 = (aiMaterial ) 0 ;
	7405	aiString arg2 = (aiString ) 0 ;
	7406	char arg3 = (char ) 0 ;
	7407	unsigned int arg4 ;
	7408	unsigned int arg5 ;
	7409	aiReturn result;
	7410
	7411	arg1 = (aiMaterial *)jarg1;
	7412	arg2 = (aiString *)jarg2;
	7413	arg3 = (char *)jarg3;
	7414	arg4 = (unsigned int)jarg4;
	7415	arg5 = (unsigned int)jarg5;
	7416	result = (aiReturn)(arg1)->AddProperty((aiString const )arg2,(char const )arg3,arg4,arg5);
	7417	jresult = result;
	7418	return jresult;
	7419	}
	7420
	7421
	7422	SWIGEXPORT int SWIGSTDCALL CSharp_aiMaterial_AddProperty__SWIG_1(void * jarg1, void * jarg2, char * jarg3, unsigned int jarg4) {
	7423	int jresult ;
	7424	aiMaterial arg1 = (aiMaterial ) 0 ;
	7425	aiString arg2 = (aiString ) 0 ;
	7426	char arg3 = (char ) 0 ;
	7427	unsigned int arg4 ;
	7428	aiReturn result;
	7429
	7430	arg1 = (aiMaterial *)jarg1;
	7431	arg2 = (aiString *)jarg2;
	7432	arg3 = (char *)jarg3;
	7433	arg4 = (unsigned int)jarg4;
	7434	result = (aiReturn)(arg1)->AddProperty((aiString const )arg2,(char const )arg3,arg4);
	7435	jresult = result;
	7436	return jresult;
	7437	}
	7438
	7439
	7440	SWIGEXPORT int SWIGSTDCALL CSharp_aiMaterial_AddProperty__SWIG_2(void * jarg1, void * jarg2, char * jarg3) {
	7441	int jresult ;
	7442	aiMaterial arg1 = (aiMaterial ) 0 ;
	7443	aiString arg2 = (aiString ) 0 ;
	7444	char arg3 = (char ) 0 ;
	7445	aiReturn result;
	7446
	7447	arg1 = (aiMaterial *)jarg1;
	7448	arg2 = (aiString *)jarg2;
	7449	arg3 = (char *)jarg3;
	7450	result = (aiReturn)(arg1)->AddProperty((aiString const )arg2,(char const )arg3);
	7451	jresult = result;
	7452	return jresult;
	7453	}
	7454
	7455
	7456	SWIGEXPORT int SWIGSTDCALL CSharp_aiMaterial_RemoveProperty__SWIG_0(void * jarg1, char * jarg2, unsigned int jarg3, unsigned int jarg4) {
	7457	int jresult ;
	7458	aiMaterial arg1 = (aiMaterial ) 0 ;
	7459	char arg2 = (char ) 0 ;
	7460	unsigned int arg3 ;
	7461	unsigned int arg4 ;
	7462	aiReturn result;
	7463
	7464	arg1 = (aiMaterial *)jarg1;
	7465	arg2 = (char *)jarg2;
	7466	arg3 = (unsigned int)jarg3;
	7467	arg4 = (unsigned int)jarg4;
	7468	result = (aiReturn)(arg1)->RemoveProperty((char const *)arg2,arg3,arg4);
	7469	jresult = result;
	7470	return jresult;
	7471	}
	7472
	7473
	7474	SWIGEXPORT int SWIGSTDCALL CSharp_aiMaterial_RemoveProperty__SWIG_1(void * jarg1, char * jarg2, unsigned int jarg3) {
	7475	int jresult ;
	7476	aiMaterial arg1 = (aiMaterial ) 0 ;
	7477	char arg2 = (char ) 0 ;
	7478	unsigned int arg3 ;
	7479	aiReturn result;
	7480
	7481	arg1 = (aiMaterial *)jarg1;
	7482	arg2 = (char *)jarg2;
	7483	arg3 = (unsigned int)jarg3;
	7484	result = (aiReturn)(arg1)->RemoveProperty((char const *)arg2,arg3);
	7485	jresult = result;
	7486	return jresult;
	7487	}
	7488
	7489
	7490	SWIGEXPORT int SWIGSTDCALL CSharp_aiMaterial_RemoveProperty__SWIG_2(void * jarg1, char * jarg2) {
	7491	int jresult ;
	7492	aiMaterial arg1 = (aiMaterial ) 0 ;
	7493	char arg2 = (char ) 0 ;
	7494	aiReturn result;
	7495
	7496	arg1 = (aiMaterial *)jarg1;
	7497	arg2 = (char *)jarg2;
	7498	result = (aiReturn)(arg1)->RemoveProperty((char const *)arg2);
	7499	jresult = result;
	7500	return jresult;
	7501	}
	7502
	7503
	7504	SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterial_Clear(void * jarg1) {
	7505	aiMaterial arg1 = (aiMaterial ) 0 ;
	7506
	7507	arg1 = (aiMaterial *)jarg1;
	7508	(arg1)->Clear();
	7509	}
	7510
	7511
	7512	SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterial_CopyPropertyList(void * jarg1, void * jarg2) {
	7513	aiMaterial arg1 = (aiMaterial ) 0 ;
	7514	aiMaterial arg2 = (aiMaterial ) 0 ;
	7515
	7516	arg1 = (aiMaterial *)jarg1;
	7517	arg2 = (aiMaterial *)jarg2;
	7518	aiMaterial::CopyPropertyList(arg1,(aiMaterial const *)arg2);
	7519	}
	7520
	7521
	7522	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetDiffuse(void * jarg1, void * jarg2) {
	7523	unsigned int jresult ;
	7524	aiMaterial arg1 = (aiMaterial ) 0 ;
	7525	aiColor4D arg2 = (aiColor4D ) 0 ;
	7526	bool result;
	7527
	7528	arg1 = (aiMaterial *)jarg1;
	7529	arg2 = (aiColor4D *)jarg2;
	7530	result = (bool)aiMaterial_GetDiffuse(arg1,arg2);
	7531	jresult = result;
	7532	return jresult;
	7533	}
	7534
	7535
	7536	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetSpecular(void * jarg1, void * jarg2) {
	7537	unsigned int jresult ;
	7538	aiMaterial arg1 = (aiMaterial ) 0 ;
	7539	aiColor4D arg2 = (aiColor4D ) 0 ;
	7540	bool result;
	7541
	7542	arg1 = (aiMaterial *)jarg1;
	7543	arg2 = (aiColor4D *)jarg2;
	7544	result = (bool)aiMaterial_GetSpecular(arg1,arg2);
	7545	jresult = result;
	7546	return jresult;
	7547	}
	7548
	7549
	7550	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetAmbient(void * jarg1, void * jarg2) {
	7551	unsigned int jresult ;
	7552	aiMaterial arg1 = (aiMaterial ) 0 ;
	7553	aiColor4D arg2 = (aiColor4D ) 0 ;
	7554	bool result;
	7555
	7556	arg1 = (aiMaterial *)jarg1;
	7557	arg2 = (aiColor4D *)jarg2;
	7558	result = (bool)aiMaterial_GetAmbient(arg1,arg2);
	7559	jresult = result;
	7560	return jresult;
	7561	}
	7562
	7563
	7564	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetEmissive(void * jarg1, void * jarg2) {
	7565	unsigned int jresult ;
	7566	aiMaterial arg1 = (aiMaterial ) 0 ;
	7567	aiColor4D arg2 = (aiColor4D ) 0 ;
	7568	bool result;
	7569
	7570	arg1 = (aiMaterial *)jarg1;
	7571	arg2 = (aiColor4D *)jarg2;
	7572	result = (bool)aiMaterial_GetEmissive(arg1,arg2);
	7573	jresult = result;
	7574	return jresult;
	7575	}
	7576
	7577
	7578	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetOpacity(void * jarg1, float * jarg2) {
	7579	unsigned int jresult ;
	7580	aiMaterial arg1 = (aiMaterial ) 0 ;
	7581	float arg2 = (float ) 0 ;
	7582	bool result;
	7583
	7584	arg1 = (aiMaterial *)jarg1;
	7585	arg2 = (float *)jarg2;
	7586	result = (bool)aiMaterial_GetOpacity(arg1,arg2);
	7587	jresult = result;
	7588	return jresult;
	7589	}
	7590
	7591
	7592	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetShininessStrength(void * jarg1, float * jarg2) {
	7593	unsigned int jresult ;
	7594	aiMaterial arg1 = (aiMaterial ) 0 ;
	7595	float arg2 = (float ) 0 ;
	7596	bool result;
	7597
	7598	arg1 = (aiMaterial *)jarg1;
	7599	arg2 = (float *)jarg2;
	7600	result = (bool)aiMaterial_GetShininessStrength(arg1,arg2);
	7601	jresult = result;
	7602	return jresult;
	7603	}
	7604
	7605
	7606	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetShadingModel(void * jarg1, int * jarg2) {
	7607	unsigned int jresult ;
	7608	aiMaterial arg1 = (aiMaterial ) 0 ;
	7609	int arg2 = (int ) 0 ;
	7610	bool result;
	7611
	7612	arg1 = (aiMaterial *)jarg1;
	7613	arg2 = (int *)jarg2;
	7614	result = (bool)aiMaterial_GetShadingModel(arg1,arg2);
	7615	jresult = result;
	7616	return jresult;
	7617	}
	7618
	7619
	7620	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTexFlagsDiffuse0(void * jarg1, int * jarg2) {
	7621	unsigned int jresult ;
	7622	aiMaterial arg1 = (aiMaterial ) 0 ;
	7623	int arg2 = (int ) 0 ;
	7624	bool result;
	7625
	7626	arg1 = (aiMaterial *)jarg1;
	7627	arg2 = (int *)jarg2;
	7628	result = (bool)aiMaterial_GetTexFlagsDiffuse0(arg1,arg2);
	7629	jresult = result;
	7630	return jresult;
	7631	}
	7632
	7633
	7634	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetMappingModeUDiffuse0(void * jarg1, int * jarg2) {
	7635	unsigned int jresult ;
	7636	aiMaterial arg1 = (aiMaterial ) 0 ;
	7637	int arg2 = (int ) 0 ;
	7638	bool result;
	7639
	7640	arg1 = (aiMaterial *)jarg1;
	7641	arg2 = (int *)jarg2;
	7642	result = (bool)aiMaterial_GetMappingModeUDiffuse0(arg1,arg2);
	7643	jresult = result;
	7644	return jresult;
	7645	}
	7646
	7647
	7648	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetMappingModeVDiffuse0(void * jarg1, int * jarg2) {
	7649	unsigned int jresult ;
	7650	aiMaterial arg1 = (aiMaterial ) 0 ;
	7651	int arg2 = (int ) 0 ;
	7652	bool result;
	7653
	7654	arg1 = (aiMaterial *)jarg1;
	7655	arg2 = (int *)jarg2;
	7656	result = (bool)aiMaterial_GetMappingModeVDiffuse0(arg1,arg2);
	7657	jresult = result;
	7658	return jresult;
	7659	}
	7660
	7661
	7662	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureDiffuse0(void * jarg1, void * jarg2) {
	7663	unsigned int jresult ;
	7664	aiMaterial arg1 = (aiMaterial ) 0 ;
	7665	aiString arg2 = (aiString ) 0 ;
	7666	bool result;
	7667
	7668	arg1 = (aiMaterial *)jarg1;
	7669	arg2 = (aiString *)jarg2;
	7670	result = (bool)aiMaterial_GetTextureDiffuse0(arg1,arg2);
	7671	jresult = result;
	7672	return jresult;
	7673	}
	7674
	7675
	7676	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureSpecular0(void * jarg1, void * jarg2) {
	7677	unsigned int jresult ;
	7678	aiMaterial arg1 = (aiMaterial ) 0 ;
	7679	aiString arg2 = (aiString ) 0 ;
	7680	bool result;
	7681
	7682	arg1 = (aiMaterial *)jarg1;
	7683	arg2 = (aiString *)jarg2;
	7684	result = (bool)aiMaterial_GetTextureSpecular0(arg1,arg2);
	7685	jresult = result;
	7686	return jresult;
	7687	}
	7688
	7689
	7690	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureOpacity0(void * jarg1, void * jarg2) {
	7691	unsigned int jresult ;
	7692	aiMaterial arg1 = (aiMaterial ) 0 ;
	7693	aiString arg2 = (aiString ) 0 ;
	7694	bool result;
	7695
	7696	arg1 = (aiMaterial *)jarg1;
	7697	arg2 = (aiString *)jarg2;
	7698	result = (bool)aiMaterial_GetTextureOpacity0(arg1,arg2);
	7699	jresult = result;
	7700	return jresult;
	7701	}
	7702
	7703
	7704	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureAmbient0(void * jarg1, void * jarg2) {
	7705	unsigned int jresult ;
	7706	aiMaterial arg1 = (aiMaterial ) 0 ;
	7707	aiString arg2 = (aiString ) 0 ;
	7708	bool result;
	7709
	7710	arg1 = (aiMaterial *)jarg1;
	7711	arg2 = (aiString *)jarg2;
	7712	result = (bool)aiMaterial_GetTextureAmbient0(arg1,arg2);
	7713	jresult = result;
	7714	return jresult;
	7715	}
	7716
	7717
	7718	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureEmissive0(void * jarg1, void * jarg2) {
	7719	unsigned int jresult ;
	7720	aiMaterial arg1 = (aiMaterial ) 0 ;
	7721	aiString arg2 = (aiString ) 0 ;
	7722	bool result;
	7723
	7724	arg1 = (aiMaterial *)jarg1;
	7725	arg2 = (aiString *)jarg2;
	7726	result = (bool)aiMaterial_GetTextureEmissive0(arg1,arg2);
	7727	jresult = result;
	7728	return jresult;
	7729	}
	7730
	7731
	7732	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureShininess0(void * jarg1, void * jarg2) {
	7733	unsigned int jresult ;
	7734	aiMaterial arg1 = (aiMaterial ) 0 ;
	7735	aiString arg2 = (aiString ) 0 ;
	7736	bool result;
	7737
	7738	arg1 = (aiMaterial *)jarg1;
	7739	arg2 = (aiString *)jarg2;
	7740	result = (bool)aiMaterial_GetTextureShininess0(arg1,arg2);
	7741	jresult = result;
	7742	return jresult;
	7743	}
	7744
	7745
	7746	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureLightmap0(void * jarg1, void * jarg2) {
	7747	unsigned int jresult ;
	7748	aiMaterial arg1 = (aiMaterial ) 0 ;
	7749	aiString arg2 = (aiString ) 0 ;
	7750	bool result;
	7751
	7752	arg1 = (aiMaterial *)jarg1;
	7753	arg2 = (aiString *)jarg2;
	7754	result = (bool)aiMaterial_GetTextureLightmap0(arg1,arg2);
	7755	jresult = result;
	7756	return jresult;
	7757	}
	7758
	7759
	7760	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureNormals0(void * jarg1, void * jarg2) {
	7761	unsigned int jresult ;
	7762	aiMaterial arg1 = (aiMaterial ) 0 ;
	7763	aiString arg2 = (aiString ) 0 ;
	7764	bool result;
	7765
	7766	arg1 = (aiMaterial *)jarg1;
	7767	arg2 = (aiString *)jarg2;
	7768	result = (bool)aiMaterial_GetTextureNormals0(arg1,arg2);
	7769	jresult = result;
	7770	return jresult;
	7771	}
	7772
	7773
	7774	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureHeight0(void * jarg1, void * jarg2) {
	7775	unsigned int jresult ;
	7776	aiMaterial arg1 = (aiMaterial ) 0 ;
	7777	aiString arg2 = (aiString ) 0 ;
	7778	bool result;
	7779
	7780	arg1 = (aiMaterial *)jarg1;
	7781	arg2 = (aiString *)jarg2;
	7782	result = (bool)aiMaterial_GetTextureHeight0(arg1,arg2);
	7783	jresult = result;
	7784	return jresult;
	7785	}
	7786
	7787
	7788	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetGlobalBackgroundImage(void * jarg1, void * jarg2) {
	7789	unsigned int jresult ;
	7790	aiMaterial arg1 = (aiMaterial ) 0 ;
	7791	aiString arg2 = (aiString ) 0 ;
	7792	bool result;
	7793
	7794	arg1 = (aiMaterial *)jarg1;
	7795	arg2 = (aiString *)jarg2;
	7796	result = (bool)aiMaterial_GetGlobalBackgroundImage(arg1,arg2);
	7797	jresult = result;
	7798	return jresult;
	7799	}
	7800
	7801
	7802	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTwoSided(void * jarg1, int * jarg2) {
	7803	unsigned int jresult ;
	7804	aiMaterial arg1 = (aiMaterial ) 0 ;
	7805	int arg2 = (int ) 0 ;
	7806	bool result;
	7807
	7808	arg1 = (aiMaterial *)jarg1;
	7809	arg2 = (int *)jarg2;
	7810	result = (bool)aiMaterial_GetTwoSided(arg1,arg2);
	7811	jresult = result;
	7812	return jresult;
	7813	}
	7814
	7815
	7816	SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_TEXTURE_BASE_get() {
	7817	char * jresult ;
	7818	char *result = 0 ;
	7819
	7820	result = (char *)("$tex.file");
	7821	jresult = SWIG_csharp_string_callback((const char *)result);
	7822	return jresult;
	7823	}
	7824
	7825
	7826	SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_UVWSRC_BASE_get() {
	7827	char * jresult ;
	7828	char *result = 0 ;
	7829
	7830	result = (char *)("$tex.uvwsrc");
	7831	jresult = SWIG_csharp_string_callback((const char *)result);
	7832	return jresult;
	7833	}
	7834
	7835
	7836	SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_TEXOP_BASE_get() {
	7837	char * jresult ;
	7838	char *result = 0 ;
	7839
	7840	result = (char *)("$tex.op");
	7841	jresult = SWIG_csharp_string_callback((const char *)result);
	7842	return jresult;
	7843	}
	7844
	7845
	7846	SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_MAPPING_BASE_get() {
	7847	char * jresult ;
	7848	char *result = 0 ;
	7849
	7850	result = (char *)("$tex.mapping");
	7851	jresult = SWIG_csharp_string_callback((const char *)result);
	7852	return jresult;
	7853	}
	7854
	7855
	7856	SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_TEXBLEND_BASE_get() {
	7857	char * jresult ;
	7858	char *result = 0 ;
	7859
	7860	result = (char *)("$tex.blend");
	7861	jresult = SWIG_csharp_string_callback((const char *)result);
	7862	return jresult;
	7863	}
	7864
	7865
	7866	SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_MAPPINGMODE_U_BASE_get() {
	7867	char * jresult ;
	7868	char *result = 0 ;
	7869
	7870	result = (char *)("$tex.mapmodeu");
	7871	jresult = SWIG_csharp_string_callback((const char *)result);
	7872	return jresult;
	7873	}
	7874
	7875
	7876	SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_MAPPINGMODE_V_BASE_get() {
	7877	char * jresult ;
	7878	char *result = 0 ;
	7879
	7880	result = (char *)("$tex.mapmodev");
	7881	jresult = SWIG_csharp_string_callback((const char *)result);
	7882	return jresult;
	7883	}
	7884
	7885
	7886	SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_TEXMAP_AXIS_BASE_get() {
	7887	char * jresult ;
	7888	char *result = 0 ;
	7889
	7890	result = (char *)("$tex.mapaxis");
	7891	jresult = SWIG_csharp_string_callback((const char *)result);
	7892	return jresult;
	7893	}
	7894
	7895
	7896	SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_UVTRANSFORM_BASE_get() {
	7897	char * jresult ;
	7898	char *result = 0 ;
	7899
	7900	result = (char *)("$tex.uvtrafo");
	7901	jresult = SWIG_csharp_string_callback((const char *)result);
	7902	return jresult;
	7903	}
	7904
	7905
	7906	SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_TEXFLAGS_BASE_get() {
	7907	char * jresult ;
	7908	char *result = 0 ;
	7909
	7910	result = (char *)("$tex.flags");
	7911	jresult = SWIG_csharp_string_callback((const char *)result);
	7912	return jresult;
	7913	}
	7914
	7915
	7916	SWIGEXPORT void SWIGSTDCALL CSharp_aiNode_mName_set(void * jarg1, void * jarg2) {
	7917	aiNode arg1 = (aiNode ) 0 ;
	7918	aiString arg2 = (aiString ) 0 ;
	7919
	7920	arg1 = (aiNode *)jarg1;
	7921	arg2 = (aiString *)jarg2;
	7922	if (arg1) (arg1)->mName = *arg2;
	7923	}
	7924
	7925
	7926	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_mName_get(void * jarg1) {
	7927	void * jresult ;
	7928	aiNode arg1 = (aiNode ) 0 ;
	7929	aiString *result = 0 ;
	7930
	7931	arg1 = (aiNode *)jarg1;
	7932	result = (aiString *)& ((arg1)->mName);
	7933	jresult = (void *)result;
	7934	return jresult;
	7935	}
	7936
	7937
	7938	SWIGEXPORT void SWIGSTDCALL CSharp_aiNode_mTransformation_set(void * jarg1, void * jarg2) {
	7939	aiNode arg1 = (aiNode ) 0 ;
	7940	aiMatrix4x4 arg2 = (aiMatrix4x4 ) 0 ;
	7941
	7942	arg1 = (aiNode *)jarg1;
	7943	arg2 = (aiMatrix4x4 *)jarg2;
	7944	if (arg1) (arg1)->mTransformation = *arg2;
	7945	}
	7946
	7947
	7948	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_mTransformation_get(void * jarg1) {
	7949	void * jresult ;
	7950	aiNode arg1 = (aiNode ) 0 ;
	7951	aiMatrix4x4 *result = 0 ;
	7952
	7953	arg1 = (aiNode *)jarg1;
	7954	result = (aiMatrix4x4 *)& ((arg1)->mTransformation);
	7955	jresult = (void *)result;
	7956	return jresult;
	7957	}
	7958
	7959
	7960	SWIGEXPORT void SWIGSTDCALL CSharp_aiNode_mParent_set(void * jarg1, void * jarg2) {
	7961	aiNode arg1 = (aiNode ) 0 ;
	7962	aiNode arg2 = (aiNode ) 0 ;
	7963
	7964	arg1 = (aiNode *)jarg1;
	7965	arg2 = (aiNode *)jarg2;
	7966	if (arg1) (arg1)->mParent = arg2;
	7967	}
	7968
	7969
	7970	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_mParent_get(void * jarg1) {
	7971	void * jresult ;
	7972	aiNode arg1 = (aiNode ) 0 ;
	7973	aiNode *result = 0 ;
	7974
	7975	arg1 = (aiNode *)jarg1;
	7976	result = (aiNode *) ((arg1)->mParent);
	7977	jresult = (void *)result;
	7978	return jresult;
	7979	}
	7980
	7981
	7982	SWIGEXPORT void SWIGSTDCALL CSharp_aiNode_mNumChildren_set(void * jarg1, unsigned int jarg2) {
	7983	aiNode arg1 = (aiNode ) 0 ;
	7984	unsigned int arg2 ;
	7985
	7986	arg1 = (aiNode *)jarg1;
	7987	arg2 = (unsigned int)jarg2;
	7988	if (arg1) (arg1)->mNumChildren = arg2;
	7989	}
	7990
	7991
	7992	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiNode_mNumChildren_get(void * jarg1) {
	7993	unsigned int jresult ;
	7994	aiNode arg1 = (aiNode ) 0 ;
	7995	unsigned int result;
	7996
	7997	arg1 = (aiNode *)jarg1;
	7998	result = (unsigned int) ((arg1)->mNumChildren);
	7999	jresult = result;
	8000	return jresult;
	8001	}
	8002
	8003
	8004	SWIGEXPORT void SWIGSTDCALL CSharp_aiNode_mNumMeshes_set(void * jarg1, unsigned int jarg2) {
	8005	aiNode arg1 = (aiNode ) 0 ;
	8006	unsigned int arg2 ;
	8007
	8008	arg1 = (aiNode *)jarg1;
	8009	arg2 = (unsigned int)jarg2;
	8010	if (arg1) (arg1)->mNumMeshes = arg2;
	8011	}
	8012
	8013
	8014	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiNode_mNumMeshes_get(void * jarg1) {
	8015	unsigned int jresult ;
	8016	aiNode arg1 = (aiNode ) 0 ;
	8017	unsigned int result;
	8018
	8019	arg1 = (aiNode *)jarg1;
	8020	result = (unsigned int) ((arg1)->mNumMeshes);
	8021	jresult = result;
	8022	return jresult;
	8023	}
	8024
	8025
	8026	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiNode__SWIG_0() {
	8027	void * jresult ;
	8028	aiNode *result = 0 ;
	8029
	8030	result = (aiNode *)new aiNode();
	8031	jresult = (void *)result;
	8032	return jresult;
	8033	}
	8034
	8035
	8036	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiNode__SWIG_1(char * jarg1) {
	8037	void * jresult ;
	8038	std::string *arg1 = 0 ;
	8039	aiNode *result = 0 ;
	8040
	8041	if (!jarg1) {
	8042	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "null string", 0);
	8043	return 0;
	8044	}
	8045	std::string arg1_str(jarg1);
	8046	arg1 = &arg1_str;
	8047	result = (aiNode )new aiNode((std::string const &)arg1);
	8048	jresult = (void *)result;
	8049	return jresult;
	8050	}
	8051
	8052
	8053	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiNode(void * jarg1) {
	8054	aiNode arg1 = (aiNode ) 0 ;
	8055
	8056	arg1 = (aiNode *)jarg1;
	8057	delete arg1;
	8058	}
	8059
	8060
	8061	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_FindNode__SWIG_0(void * jarg1, void * jarg2) {
	8062	void * jresult ;
	8063	aiNode arg1 = (aiNode ) 0 ;
	8064	aiString *arg2 = 0 ;
	8065	aiNode *result = 0 ;
	8066
	8067	arg1 = (aiNode *)jarg1;
	8068	arg2 = (aiString *)jarg2;
	8069	if (!arg2) {
	8070	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiString const & type is null", 0);
	8071	return 0;
	8072	}
	8073	result = (aiNode )(arg1)->FindNode((aiString const &)arg2);
	8074	jresult = (void *)result;
	8075	return jresult;
	8076	}
	8077
	8078
	8079	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_FindNode__SWIG_1(void * jarg1, char * jarg2) {
	8080	void * jresult ;
	8081	aiNode arg1 = (aiNode ) 0 ;
	8082	char arg2 = (char ) 0 ;
	8083	aiNode *result = 0 ;
	8084
	8085	arg1 = (aiNode *)jarg1;
	8086	arg2 = (char *)jarg2;
	8087	result = (aiNode )(arg1)->FindNode((char const )arg2);
	8088	jresult = (void *)result;
	8089	return jresult;
	8090	}
	8091
	8092
	8093	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_GetmChildren(void * jarg1) {
	8094	void * jresult ;
	8095	aiNode arg1 = (aiNode ) 0 ;
	8096	std::vector< aiNode * > *result = 0 ;
	8097
	8098	arg1 = (aiNode *)jarg1;
	8099	result = (std::vector< aiNode * > *)aiNode_GetmChildren(arg1);
	8100	jresult = (void *)result;
	8101	return jresult;
	8102	}
	8103
	8104
	8105	SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_GetmMeshes(void * jarg1) {
	8106	void * jresult ;
	8107	aiNode arg1 = (aiNode ) 0 ;
	8108	std::vector< unsigned int > *result = 0 ;
	8109
	8110	arg1 = (aiNode *)jarg1;
	8111	result = (std::vector< unsigned int > *)aiNode_GetmMeshes(arg1);
	8112	jresult = (void *)result;
	8113	return jresult;
	8114	}
	8115
	8116
	8117	SWIGEXPORT int SWIGSTDCALL CSharp_AI_SCENE_FLAGS_INCOMPLETE_get() {
	8118	int jresult ;
	8119	int result;
	8120
	8121	result = (int)(0x1);
	8122	jresult = result;
	8123	return jresult;
	8124	}
	8125
	8126
	8127	SWIGEXPORT int SWIGSTDCALL CSharp_AI_SCENE_FLAGS_VALIDATED_get() {
	8128	int jresult ;
	8129	int result;
	8130
	8131	result = (int)(0x2);
	8132	jresult = result;
	8133	return jresult;
	8134	}
	8135
	8136
	8137	SWIGEXPORT int SWIGSTDCALL CSharp_AI_SCENE_FLAGS_VALIDATION_WARNING_get() {
	8138	int jresult ;
	8139	int result;
	8140
	8141	result = (int)(0x4);
	8142	jresult = result;
	8143	return jresult;
	8144	}
	8145
	8146
	8147	SWIGEXPORT int SWIGSTDCALL CSharp_AI_SCENE_FLAGS_NON_VERBOSE_FORMAT_get() {
	8148	int jresult ;
	8149	int result;
	8150
	8151	result = (int)(0x8);
	8152	jresult = result;
	8153	return jresult;
	8154	}
	8155
	8156
	8157	SWIGEXPORT int SWIGSTDCALL CSharp_AI_SCENE_FLAGS_TERRAIN_get() {
	8158	int jresult ;
	8159	int result;
	8160
	8161	result = (int)(0x10);
	8162	jresult = result;
	8163	return jresult;
	8164	}
	8165
	8166
	8167	SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mFlags_set(void * jarg1, unsigned int jarg2) {
	8168	aiScene arg1 = (aiScene ) 0 ;
	8169	unsigned int arg2 ;
	8170
	8171	arg1 = (aiScene *)jarg1;
	8172	arg2 = (unsigned int)jarg2;
	8173	if (arg1) (arg1)->mFlags = arg2;
	8174	}
	8175
	8176
	8177	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mFlags_get(void * jarg1) {
	8178	unsigned int jresult ;
	8179	aiScene arg1 = (aiScene ) 0 ;
	8180	unsigned int result;
	8181
	8182	arg1 = (aiScene *)jarg1;
	8183	result = (unsigned int) ((arg1)->mFlags);
	8184	jresult = result;
	8185	return jresult;
	8186	}
	8187
	8188
	8189	SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mRootNode_set(void * jarg1, void * jarg2) {
	8190	aiScene arg1 = (aiScene ) 0 ;
	8191	aiNode arg2 = (aiNode ) 0 ;
	8192
	8193	arg1 = (aiScene *)jarg1;
	8194	arg2 = (aiNode *)jarg2;
	8195	if (arg1) (arg1)->mRootNode = arg2;
	8196	}
	8197
	8198
	8199	SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_mRootNode_get(void * jarg1) {
	8200	void * jresult ;
	8201	aiScene arg1 = (aiScene ) 0 ;
	8202	aiNode *result = 0 ;
	8203
	8204	arg1 = (aiScene *)jarg1;
	8205	result = (aiNode *) ((arg1)->mRootNode);
	8206	jresult = (void *)result;
	8207	return jresult;
	8208	}
	8209
	8210
	8211	SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumMeshes_set(void * jarg1, unsigned int jarg2) {
	8212	aiScene arg1 = (aiScene ) 0 ;
	8213	unsigned int arg2 ;
	8214
	8215	arg1 = (aiScene *)jarg1;
	8216	arg2 = (unsigned int)jarg2;
	8217	if (arg1) (arg1)->mNumMeshes = arg2;
	8218	}
	8219
	8220
	8221	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumMeshes_get(void * jarg1) {
	8222	unsigned int jresult ;
	8223	aiScene arg1 = (aiScene ) 0 ;
	8224	unsigned int result;
	8225
	8226	arg1 = (aiScene *)jarg1;
	8227	result = (unsigned int) ((arg1)->mNumMeshes);
	8228	jresult = result;
	8229	return jresult;
	8230	}
	8231
	8232
	8233	SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumMaterials_set(void * jarg1, unsigned int jarg2) {
	8234	aiScene arg1 = (aiScene ) 0 ;
	8235	unsigned int arg2 ;
	8236
	8237	arg1 = (aiScene *)jarg1;
	8238	arg2 = (unsigned int)jarg2;
	8239	if (arg1) (arg1)->mNumMaterials = arg2;
	8240	}
	8241
	8242
	8243	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumMaterials_get(void * jarg1) {
	8244	unsigned int jresult ;
	8245	aiScene arg1 = (aiScene ) 0 ;
	8246	unsigned int result;
	8247
	8248	arg1 = (aiScene *)jarg1;
	8249	result = (unsigned int) ((arg1)->mNumMaterials);
	8250	jresult = result;
	8251	return jresult;
	8252	}
	8253
	8254
	8255	SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumAnimations_set(void * jarg1, unsigned int jarg2) {
	8256	aiScene arg1 = (aiScene ) 0 ;
	8257	unsigned int arg2 ;
	8258
	8259	arg1 = (aiScene *)jarg1;
	8260	arg2 = (unsigned int)jarg2;
	8261	if (arg1) (arg1)->mNumAnimations = arg2;
	8262	}
	8263
	8264
	8265	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumAnimations_get(void * jarg1) {
	8266	unsigned int jresult ;
	8267	aiScene arg1 = (aiScene ) 0 ;
	8268	unsigned int result;
	8269
	8270	arg1 = (aiScene *)jarg1;
	8271	result = (unsigned int) ((arg1)->mNumAnimations);
	8272	jresult = result;
	8273	return jresult;
	8274	}
	8275
	8276
	8277	SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumTextures_set(void * jarg1, unsigned int jarg2) {
	8278	aiScene arg1 = (aiScene ) 0 ;
	8279	unsigned int arg2 ;
	8280
	8281	arg1 = (aiScene *)jarg1;
	8282	arg2 = (unsigned int)jarg2;
	8283	if (arg1) (arg1)->mNumTextures = arg2;
	8284	}
	8285
	8286
	8287	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumTextures_get(void * jarg1) {
	8288	unsigned int jresult ;
	8289	aiScene arg1 = (aiScene ) 0 ;
	8290	unsigned int result;
	8291
	8292	arg1 = (aiScene *)jarg1;
	8293	result = (unsigned int) ((arg1)->mNumTextures);
	8294	jresult = result;
	8295	return jresult;
	8296	}
	8297
	8298
	8299	SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumLights_set(void * jarg1, unsigned int jarg2) {
	8300	aiScene arg1 = (aiScene ) 0 ;
	8301	unsigned int arg2 ;
	8302
	8303	arg1 = (aiScene *)jarg1;
	8304	arg2 = (unsigned int)jarg2;
	8305	if (arg1) (arg1)->mNumLights = arg2;
	8306	}
	8307
	8308
	8309	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumLights_get(void * jarg1) {
	8310	unsigned int jresult ;
	8311	aiScene arg1 = (aiScene ) 0 ;
	8312	unsigned int result;
	8313
	8314	arg1 = (aiScene *)jarg1;
	8315	result = (unsigned int) ((arg1)->mNumLights);
	8316	jresult = result;
	8317	return jresult;
	8318	}
	8319
	8320
	8321	SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumCameras_set(void * jarg1, unsigned int jarg2) {
	8322	aiScene arg1 = (aiScene ) 0 ;
	8323	unsigned int arg2 ;
	8324
	8325	arg1 = (aiScene *)jarg1;
	8326	arg2 = (unsigned int)jarg2;
	8327	if (arg1) (arg1)->mNumCameras = arg2;
	8328	}
	8329
	8330
	8331	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumCameras_get(void * jarg1) {
	8332	unsigned int jresult ;
	8333	aiScene arg1 = (aiScene ) 0 ;
	8334	unsigned int result;
	8335
	8336	arg1 = (aiScene *)jarg1;
	8337	result = (unsigned int) ((arg1)->mNumCameras);
	8338	jresult = result;
	8339	return jresult;
	8340	}
	8341
	8342
	8343	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiScene() {
	8344	void * jresult ;
	8345	aiScene *result = 0 ;
	8346
	8347	result = (aiScene *)new aiScene();
	8348	jresult = (void *)result;
	8349	return jresult;
	8350	}
	8351
	8352
	8353	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiScene(void * jarg1) {
	8354	aiScene arg1 = (aiScene ) 0 ;
	8355
	8356	arg1 = (aiScene *)jarg1;
	8357	delete arg1;
	8358	}
	8359
	8360
	8361	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasMeshes(void * jarg1) {
	8362	unsigned int jresult ;
	8363	aiScene arg1 = (aiScene ) 0 ;
	8364	bool result;
	8365
	8366	arg1 = (aiScene *)jarg1;
	8367	result = (bool)((aiScene const *)arg1)->HasMeshes();
	8368	jresult = result;
	8369	return jresult;
	8370	}
	8371
	8372
	8373	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasMaterials(void * jarg1) {
	8374	unsigned int jresult ;
	8375	aiScene arg1 = (aiScene ) 0 ;
	8376	bool result;
	8377
	8378	arg1 = (aiScene *)jarg1;
	8379	result = (bool)((aiScene const *)arg1)->HasMaterials();
	8380	jresult = result;
	8381	return jresult;
	8382	}
	8383
	8384
	8385	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasLights(void * jarg1) {
	8386	unsigned int jresult ;
	8387	aiScene arg1 = (aiScene ) 0 ;
	8388	bool result;
	8389
	8390	arg1 = (aiScene *)jarg1;
	8391	result = (bool)((aiScene const *)arg1)->HasLights();
	8392	jresult = result;
	8393	return jresult;
	8394	}
	8395
	8396
	8397	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasTextures(void * jarg1) {
	8398	unsigned int jresult ;
	8399	aiScene arg1 = (aiScene ) 0 ;
	8400	bool result;
	8401
	8402	arg1 = (aiScene *)jarg1;
	8403	result = (bool)((aiScene const *)arg1)->HasTextures();
	8404	jresult = result;
	8405	return jresult;
	8406	}
	8407
	8408
	8409	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasCameras(void * jarg1) {
	8410	unsigned int jresult ;
	8411	aiScene arg1 = (aiScene ) 0 ;
	8412	bool result;
	8413
	8414	arg1 = (aiScene *)jarg1;
	8415	result = (bool)((aiScene const *)arg1)->HasCameras();
	8416	jresult = result;
	8417	return jresult;
	8418	}
	8419
	8420
	8421	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasAnimations(void * jarg1) {
	8422	unsigned int jresult ;
	8423	aiScene arg1 = (aiScene ) 0 ;
	8424	bool result;
	8425
	8426	arg1 = (aiScene *)jarg1;
	8427	result = (bool)((aiScene const *)arg1)->HasAnimations();
	8428	jresult = result;
	8429	return jresult;
	8430	}
	8431
	8432
	8433	SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mPrivate_set(void * jarg1, void * jarg2) {
	8434	aiScene arg1 = (aiScene ) 0 ;
	8435	void arg2 = (void ) 0 ;
	8436
	8437	arg1 = (aiScene *)jarg1;
	8438	arg2 = (void *)jarg2;
	8439	if (arg1) (arg1)->mPrivate = arg2;
	8440	}
	8441
	8442
	8443	SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_mPrivate_get(void * jarg1) {
	8444	void * jresult ;
	8445	aiScene arg1 = (aiScene ) 0 ;
	8446	void *result = 0 ;
	8447
	8448	arg1 = (aiScene *)jarg1;
	8449	result = (void *) ((arg1)->mPrivate);
	8450	jresult = (void *)result;
	8451	return jresult;
	8452	}
	8453
	8454
	8455	SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmAnimations(void * jarg1) {
	8456	void * jresult ;
	8457	aiScene arg1 = (aiScene ) 0 ;
	8458	std::vector< aiAnimation * > *result = 0 ;
	8459
	8460	arg1 = (aiScene *)jarg1;
	8461	result = (std::vector< aiAnimation * > *)aiScene_GetmAnimations(arg1);
	8462	jresult = (void *)result;
	8463	return jresult;
	8464	}
	8465
	8466
	8467	SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmCameras(void * jarg1) {
	8468	void * jresult ;
	8469	aiScene arg1 = (aiScene ) 0 ;
	8470	std::vector< aiCamera * > *result = 0 ;
	8471
	8472	arg1 = (aiScene *)jarg1;
	8473	result = (std::vector< aiCamera * > *)aiScene_GetmCameras(arg1);
	8474	jresult = (void *)result;
	8475	return jresult;
	8476	}
	8477
	8478
	8479	SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmLights(void * jarg1) {
	8480	void * jresult ;
	8481	aiScene arg1 = (aiScene ) 0 ;
	8482	std::vector< aiLight * > *result = 0 ;
	8483
	8484	arg1 = (aiScene *)jarg1;
	8485	result = (std::vector< aiLight * > *)aiScene_GetmLights(arg1);
	8486	jresult = (void *)result;
	8487	return jresult;
	8488	}
	8489
	8490
	8491	SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmMaterials(void * jarg1) {
	8492	void * jresult ;
	8493	aiScene arg1 = (aiScene ) 0 ;
	8494	std::vector< aiMaterial * > *result = 0 ;
	8495
	8496	arg1 = (aiScene *)jarg1;
	8497	result = (std::vector< aiMaterial * > *)aiScene_GetmMaterials(arg1);
	8498	jresult = (void *)result;
	8499	return jresult;
	8500	}
	8501
	8502
	8503	SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmMeshes(void * jarg1) {
	8504	void * jresult ;
	8505	aiScene arg1 = (aiScene ) 0 ;
	8506	std::vector< aiMesh * > *result = 0 ;
	8507
	8508	arg1 = (aiScene *)jarg1;
	8509	result = (std::vector< aiMesh * > *)aiScene_GetmMeshes(arg1);
	8510	jresult = (void *)result;
	8511	return jresult;
	8512	}
	8513
	8514
	8515	SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmTextures(void * jarg1) {
	8516	void * jresult ;
	8517	aiScene arg1 = (aiScene ) 0 ;
	8518	std::vector< aiTexture * > *result = 0 ;
	8519
	8520	arg1 = (aiScene *)jarg1;
	8521	result = (std::vector< aiTexture * > *)aiScene_GetmTextures(arg1);
	8522	jresult = (void *)result;
	8523	return jresult;
	8524	}
	8525
	8526
	8527	SWIGEXPORT void SWIGSTDCALL CSharp_aiTexel_b_set(void * jarg1, unsigned char jarg2) {
	8528	aiTexel arg1 = (aiTexel ) 0 ;
	8529	unsigned char arg2 ;
	8530
	8531	arg1 = (aiTexel *)jarg1;
	8532	arg2 = (unsigned char)jarg2;
	8533	if (arg1) (arg1)->b = arg2;
	8534	}
	8535
	8536
	8537	SWIGEXPORT unsigned char SWIGSTDCALL CSharp_aiTexel_b_get(void * jarg1) {
	8538	unsigned char jresult ;
	8539	aiTexel arg1 = (aiTexel ) 0 ;
	8540	unsigned char result;
	8541
	8542	arg1 = (aiTexel *)jarg1;
	8543	result = (unsigned char) ((arg1)->b);
	8544	jresult = result;
	8545	return jresult;
	8546	}
	8547
	8548
	8549	SWIGEXPORT void SWIGSTDCALL CSharp_aiTexel_g_set(void * jarg1, unsigned char jarg2) {
	8550	aiTexel arg1 = (aiTexel ) 0 ;
	8551	unsigned char arg2 ;
	8552
	8553	arg1 = (aiTexel *)jarg1;
	8554	arg2 = (unsigned char)jarg2;
	8555	if (arg1) (arg1)->g = arg2;
	8556	}
	8557
	8558
	8559	SWIGEXPORT unsigned char SWIGSTDCALL CSharp_aiTexel_g_get(void * jarg1) {
	8560	unsigned char jresult ;
	8561	aiTexel arg1 = (aiTexel ) 0 ;
	8562	unsigned char result;
	8563
	8564	arg1 = (aiTexel *)jarg1;
	8565	result = (unsigned char) ((arg1)->g);
	8566	jresult = result;
	8567	return jresult;
	8568	}
	8569
	8570
	8571	SWIGEXPORT void SWIGSTDCALL CSharp_aiTexel_r_set(void * jarg1, unsigned char jarg2) {
	8572	aiTexel arg1 = (aiTexel ) 0 ;
	8573	unsigned char arg2 ;
	8574
	8575	arg1 = (aiTexel *)jarg1;
	8576	arg2 = (unsigned char)jarg2;
	8577	if (arg1) (arg1)->r = arg2;
	8578	}
	8579
	8580
	8581	SWIGEXPORT unsigned char SWIGSTDCALL CSharp_aiTexel_r_get(void * jarg1) {
	8582	unsigned char jresult ;
	8583	aiTexel arg1 = (aiTexel ) 0 ;
	8584	unsigned char result;
	8585
	8586	arg1 = (aiTexel *)jarg1;
	8587	result = (unsigned char) ((arg1)->r);
	8588	jresult = result;
	8589	return jresult;
	8590	}
	8591
	8592
	8593	SWIGEXPORT void SWIGSTDCALL CSharp_aiTexel_a_set(void * jarg1, unsigned char jarg2) {
	8594	aiTexel arg1 = (aiTexel ) 0 ;
	8595	unsigned char arg2 ;
	8596
	8597	arg1 = (aiTexel *)jarg1;
	8598	arg2 = (unsigned char)jarg2;
	8599	if (arg1) (arg1)->a = arg2;
	8600	}
	8601
	8602
	8603	SWIGEXPORT unsigned char SWIGSTDCALL CSharp_aiTexel_a_get(void * jarg1) {
	8604	unsigned char jresult ;
	8605	aiTexel arg1 = (aiTexel ) 0 ;
	8606	unsigned char result;
	8607
	8608	arg1 = (aiTexel *)jarg1;
	8609	result = (unsigned char) ((arg1)->a);
	8610	jresult = result;
	8611	return jresult;
	8612	}
	8613
	8614
	8615	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiTexel___equal__(void * jarg1, void * jarg2) {
	8616	unsigned int jresult ;
	8617	aiTexel arg1 = (aiTexel ) 0 ;
	8618	aiTexel *arg2 = 0 ;
	8619	bool result;
	8620
	8621	arg1 = (aiTexel *)jarg1;
	8622	arg2 = (aiTexel *)jarg2;
	8623	if (!arg2) {
	8624	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiTexel const & type is null", 0);
	8625	return 0;
	8626	}
	8627	result = (bool)((aiTexel const )arg1)->operator ==((aiTexel const &)arg2);
	8628	jresult = result;
	8629	return jresult;
	8630	}
	8631
	8632
	8633	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiTexel___nequal__(void * jarg1, void * jarg2) {
	8634	unsigned int jresult ;
	8635	aiTexel arg1 = (aiTexel ) 0 ;
	8636	aiTexel *arg2 = 0 ;
	8637	bool result;
	8638
	8639	arg1 = (aiTexel *)jarg1;
	8640	arg2 = (aiTexel *)jarg2;
	8641	if (!arg2) {
	8642	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiTexel const & type is null", 0);
	8643	return 0;
	8644	}
	8645	result = (bool)((aiTexel const )arg1)->operator !=((aiTexel const &)arg2);
	8646	jresult = result;
	8647	return jresult;
	8648	}
	8649
	8650
	8651	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiTexel() {
	8652	void * jresult ;
	8653	aiTexel *result = 0 ;
	8654
	8655	result = (aiTexel *)new aiTexel();
	8656	jresult = (void *)result;
	8657	return jresult;
	8658	}
	8659
	8660
	8661	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiTexel(void * jarg1) {
	8662	aiTexel arg1 = (aiTexel ) 0 ;
	8663
	8664	arg1 = (aiTexel *)jarg1;
	8665	delete arg1;
	8666	}
	8667
	8668
	8669	SWIGEXPORT void SWIGSTDCALL CSharp_aiTexture_mWidth_set(void * jarg1, unsigned int jarg2) {
	8670	aiTexture arg1 = (aiTexture ) 0 ;
	8671	unsigned int arg2 ;
	8672
	8673	arg1 = (aiTexture *)jarg1;
	8674	arg2 = (unsigned int)jarg2;
	8675	if (arg1) (arg1)->mWidth = arg2;
	8676	}
	8677
	8678
	8679	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiTexture_mWidth_get(void * jarg1) {
	8680	unsigned int jresult ;
	8681	aiTexture arg1 = (aiTexture ) 0 ;
	8682	unsigned int result;
	8683
	8684	arg1 = (aiTexture *)jarg1;
	8685	result = (unsigned int) ((arg1)->mWidth);
	8686	jresult = result;
	8687	return jresult;
	8688	}
	8689
	8690
	8691	SWIGEXPORT void SWIGSTDCALL CSharp_aiTexture_mHeight_set(void * jarg1, unsigned int jarg2) {
	8692	aiTexture arg1 = (aiTexture ) 0 ;
	8693	unsigned int arg2 ;
	8694
	8695	arg1 = (aiTexture *)jarg1;
	8696	arg2 = (unsigned int)jarg2;
	8697	if (arg1) (arg1)->mHeight = arg2;
	8698	}
	8699
	8700
	8701	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiTexture_mHeight_get(void * jarg1) {
	8702	unsigned int jresult ;
	8703	aiTexture arg1 = (aiTexture ) 0 ;
	8704	unsigned int result;
	8705
	8706	arg1 = (aiTexture *)jarg1;
	8707	result = (unsigned int) ((arg1)->mHeight);
	8708	jresult = result;
	8709	return jresult;
	8710	}
	8711
	8712
	8713	SWIGEXPORT void SWIGSTDCALL CSharp_aiTexture_achFormatHint_set(void * jarg1, char * jarg2) {
	8714	aiTexture arg1 = (aiTexture ) 0 ;
	8715	char *arg2 ;
	8716
	8717	arg1 = (aiTexture *)jarg1;
	8718	arg2 = (char *)jarg2;
	8719	{
	8720	if(arg2) {
	8721	strncpy((char)arg1->achFormatHint, (const char )arg2, 4-1);
	8722	arg1->achFormatHint[4-1] = 0;
	8723	} else {
	8724	arg1->achFormatHint[0] = 0;
	8725	}
	8726	}
	8727	}
	8728
	8729
	8730	SWIGEXPORT char * SWIGSTDCALL CSharp_aiTexture_achFormatHint_get(void * jarg1) {
	8731	char * jresult ;
	8732	aiTexture arg1 = (aiTexture ) 0 ;
	8733	char *result = 0 ;
	8734
	8735	arg1 = (aiTexture *)jarg1;
	8736	result = (char )(char ) ((arg1)->achFormatHint);
	8737	jresult = SWIG_csharp_string_callback((const char *)result);
	8738	return jresult;
	8739	}
	8740
	8741
	8742	SWIGEXPORT void SWIGSTDCALL CSharp_aiTexture_pcData_set(void * jarg1, void * jarg2) {
	8743	aiTexture arg1 = (aiTexture ) 0 ;
	8744	aiTexel arg2 = (aiTexel ) 0 ;
	8745
	8746	arg1 = (aiTexture *)jarg1;
	8747	arg2 = (aiTexel *)jarg2;
	8748	if (arg1) (arg1)->pcData = arg2;
	8749	}
	8750
	8751
	8752	SWIGEXPORT void * SWIGSTDCALL CSharp_aiTexture_pcData_get(void * jarg1) {
	8753	void * jresult ;
	8754	aiTexture arg1 = (aiTexture ) 0 ;
	8755	aiTexel *result = 0 ;
	8756
	8757	arg1 = (aiTexture *)jarg1;
	8758	result = (aiTexel *) ((arg1)->pcData);
	8759	jresult = (void *)result;
	8760	return jresult;
	8761	}
	8762
	8763
	8764	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiTexture_CheckFormat(void * jarg1, char * jarg2) {
	8765	unsigned int jresult ;
	8766	aiTexture arg1 = (aiTexture ) 0 ;
	8767	char arg2 = (char ) 0 ;
	8768	bool result;
	8769
	8770	arg1 = (aiTexture *)jarg1;
	8771	arg2 = (char *)jarg2;
	8772	result = (bool)((aiTexture const )arg1)->CheckFormat((char const )arg2);
	8773	jresult = result;
	8774	return jresult;
	8775	}
	8776
	8777
	8778	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiTexture() {
	8779	void * jresult ;
	8780	aiTexture *result = 0 ;
	8781
	8782	result = (aiTexture *)new aiTexture();
	8783	jresult = (void *)result;
	8784	return jresult;
	8785	}
	8786
	8787
	8788	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiTexture(void * jarg1) {
	8789	aiTexture arg1 = (aiTexture ) 0 ;
	8790
	8791	arg1 = (aiTexture *)jarg1;
	8792	delete arg1;
	8793	}
	8794
	8795
	8796	SWIGEXPORT int SWIGSTDCALL CSharp_AI_PROPERTY_WAS_NOT_EXISTING_get() {
	8797	int jresult ;
	8798	int result;
	8799
	8800	result = (int)(0xffffffff);
	8801	jresult = result;
	8802	return jresult;
	8803	}
	8804
	8805
	8806	SWIGEXPORT void * SWIGSTDCALL CSharp_new_Importer__SWIG_0() {
	8807	void * jresult ;
	8808	Assimp::Importer *result = 0 ;
	8809
	8810	result = (Assimp::Importer *)new Assimp::Importer();
	8811	jresult = (void *)result;
	8812	return jresult;
	8813	}
	8814
	8815
	8816	SWIGEXPORT void * SWIGSTDCALL CSharp_new_Importer__SWIG_1(void * jarg1) {
	8817	void * jresult ;
	8818	Assimp::Importer *arg1 = 0 ;
	8819	Assimp::Importer *result = 0 ;
	8820
	8821	arg1 = (Assimp::Importer *)jarg1;
4770	8822	if (!arg1) {
4771		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
	8823	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "Assimp::Importer const & type is null", 0);
4772	8824	return 0;
4773	8825	}
4774		result = (aiVector2D )new aiVector2D((aiVector2D const &)arg1);
4775		jresult = (void *)result;
4776		return jresult;
4777		}
4778
4779
4780		SWIGEXPORT void SWIGSTDCALL CSharp_aiVector2D_Set(void * jarg1, float jarg2, float jarg3) {
4781		aiVector2D arg1 = (aiVector2D ) 0 ;
	8826	result = (Assimp::Importer )new Assimp::Importer((Assimp::Importer const &)arg1);
	8827	jresult = (void *)result;
	8828	return jresult;
	8829	}
	8830
	8831
	8832	SWIGEXPORT void SWIGSTDCALL CSharp_delete_Importer(void * jarg1) {
	8833	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8834
	8835	arg1 = (Assimp::Importer *)jarg1;
	8836	delete arg1;
	8837	}
	8838
	8839
	8840	SWIGEXPORT int SWIGSTDCALL CSharp_Importer_GetPropertyInteger__SWIG_0(void * jarg1, char * jarg2, int jarg3) {
	8841	int jresult ;
	8842	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8843	char arg2 = (char ) 0 ;
	8844	int arg3 ;
	8845	int result;
	8846
	8847	arg1 = (Assimp::Importer *)jarg1;
	8848	arg2 = (char *)jarg2;
	8849	arg3 = (int)jarg3;
	8850	result = (int)((Assimp::Importer const )arg1)->GetPropertyInteger((char const )arg2,arg3);
	8851	jresult = result;
	8852	return jresult;
	8853	}
	8854
	8855
	8856	SWIGEXPORT int SWIGSTDCALL CSharp_Importer_GetPropertyInteger__SWIG_1(void * jarg1, char * jarg2) {
	8857	int jresult ;
	8858	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8859	char arg2 = (char ) 0 ;
	8860	int result;
	8861
	8862	arg1 = (Assimp::Importer *)jarg1;
	8863	arg2 = (char *)jarg2;
	8864	result = (int)((Assimp::Importer const )arg1)->GetPropertyInteger((char const )arg2);
	8865	jresult = result;
	8866	return jresult;
	8867	}
	8868
	8869
	8870	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_GetPropertyBool__SWIG_0(void * jarg1, char * jarg2, unsigned int jarg3) {
	8871	unsigned int jresult ;
	8872	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8873	char arg2 = (char ) 0 ;
	8874	bool arg3 ;
	8875	bool result;
	8876
	8877	arg1 = (Assimp::Importer *)jarg1;
	8878	arg2 = (char *)jarg2;
	8879	arg3 = jarg3 ? true : false;
	8880	result = (bool)((Assimp::Importer const )arg1)->GetPropertyBool((char const )arg2,arg3);
	8881	jresult = result;
	8882	return jresult;
	8883	}
	8884
	8885
	8886	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_GetPropertyBool__SWIG_1(void * jarg1, char * jarg2) {
	8887	unsigned int jresult ;
	8888	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8889	char arg2 = (char ) 0 ;
	8890	bool result;
	8891
	8892	arg1 = (Assimp::Importer *)jarg1;
	8893	arg2 = (char *)jarg2;
	8894	result = (bool)((Assimp::Importer const )arg1)->GetPropertyBool((char const )arg2);
	8895	jresult = result;
	8896	return jresult;
	8897	}
	8898
	8899
	8900	SWIGEXPORT float SWIGSTDCALL CSharp_Importer_GetPropertyFloat__SWIG_0(void * jarg1, char * jarg2, float jarg3) {
	8901	float jresult ;
	8902	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8903	char arg2 = (char ) 0 ;
	8904	float arg3 ;
	8905	float result;
	8906
	8907	arg1 = (Assimp::Importer *)jarg1;
	8908	arg2 = (char *)jarg2;
	8909	arg3 = (float)jarg3;
	8910	result = (float)((Assimp::Importer const )arg1)->GetPropertyFloat((char const )arg2,arg3);
	8911	jresult = result;
	8912	return jresult;
	8913	}
	8914
	8915
	8916	SWIGEXPORT float SWIGSTDCALL CSharp_Importer_GetPropertyFloat__SWIG_1(void * jarg1, char * jarg2) {
	8917	float jresult ;
	8918	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8919	char arg2 = (char ) 0 ;
	8920	float result;
	8921
	8922	arg1 = (Assimp::Importer *)jarg1;
	8923	arg2 = (char *)jarg2;
	8924	result = (float)((Assimp::Importer const )arg1)->GetPropertyFloat((char const )arg2);
	8925	jresult = result;
	8926	return jresult;
	8927	}
	8928
	8929
	8930	SWIGEXPORT char * SWIGSTDCALL CSharp_Importer_GetPropertyString__SWIG_0(void * jarg1, char * jarg2, char * jarg3) {
	8931	char * jresult ;
	8932	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8933	char arg2 = (char ) 0 ;
	8934	std::string *arg3 = 0 ;
	8935	std::string *result = 0 ;
	8936
	8937	arg1 = (Assimp::Importer *)jarg1;
	8938	arg2 = (char *)jarg2;
	8939	if (!jarg3) {
	8940	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "null string", 0);
	8941	return 0;
	8942	}
	8943	std::string arg3_str(jarg3);
	8944	arg3 = &arg3_str;
	8945	result = (std::string ) &((Assimp::Importer const )arg1)->GetPropertyString((char const )arg2,(std::string const &)arg3);
	8946	jresult = SWIG_csharp_string_callback(result->c_str());
	8947	return jresult;
	8948	}
	8949
	8950
	8951	SWIGEXPORT char * SWIGSTDCALL CSharp_Importer_GetPropertyString__SWIG_1(void * jarg1, char * jarg2) {
	8952	char * jresult ;
	8953	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8954	char arg2 = (char ) 0 ;
	8955	std::string *result = 0 ;
	8956
	8957	arg1 = (Assimp::Importer *)jarg1;
	8958	arg2 = (char *)jarg2;
	8959	result = (std::string ) &((Assimp::Importer const )arg1)->GetPropertyString((char const *)arg2);
	8960	jresult = SWIG_csharp_string_callback(result->c_str());
	8961	return jresult;
	8962	}
	8963
	8964
	8965	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_IsDefaultIOHandler(void * jarg1) {
	8966	unsigned int jresult ;
	8967	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8968	bool result;
	8969
	8970	arg1 = (Assimp::Importer *)jarg1;
	8971	result = (bool)((Assimp::Importer const *)arg1)->IsDefaultIOHandler();
	8972	jresult = result;
	8973	return jresult;
	8974	}
	8975
	8976
	8977	SWIGEXPORT void SWIGSTDCALL CSharp_Importer_SetProgressHandler(void * jarg1, void * jarg2) {
	8978	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8979	Assimp::ProgressHandler arg2 = (Assimp::ProgressHandler ) 0 ;
	8980
	8981	arg1 = (Assimp::Importer *)jarg1;
	8982	arg2 = (Assimp::ProgressHandler *)jarg2;
	8983	(arg1)->SetProgressHandler(arg2);
	8984	}
	8985
	8986
	8987	SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_GetProgressHandler(void * jarg1) {
	8988	void * jresult ;
	8989	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	8990	Assimp::ProgressHandler *result = 0 ;
	8991
	8992	arg1 = (Assimp::Importer *)jarg1;
	8993	result = (Assimp::ProgressHandler )((Assimp::Importer const )arg1)->GetProgressHandler();
	8994	jresult = (void *)result;
	8995	return jresult;
	8996	}
	8997
	8998
	8999	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_IsDefaultProgressHandler(void * jarg1) {
	9000	unsigned int jresult ;
	9001	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9002	bool result;
	9003
	9004	arg1 = (Assimp::Importer *)jarg1;
	9005	result = (bool)((Assimp::Importer const *)arg1)->IsDefaultProgressHandler();
	9006	jresult = result;
	9007	return jresult;
	9008	}
	9009
	9010
	9011	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_ValidateFlags(void * jarg1, unsigned int jarg2) {
	9012	unsigned int jresult ;
	9013	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9014	unsigned int arg2 ;
	9015	bool result;
	9016
	9017	arg1 = (Assimp::Importer *)jarg1;
	9018	arg2 = (unsigned int)jarg2;
	9019	result = (bool)((Assimp::Importer const *)arg1)->ValidateFlags(arg2);
	9020	jresult = result;
	9021	return jresult;
	9022	}
	9023
	9024
	9025	SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_ReadFile__SWIG_0(void * jarg1, char * jarg2, unsigned int jarg3) {
	9026	void * jresult ;
	9027	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9028	char arg2 = (char ) 0 ;
	9029	unsigned int arg3 ;
	9030	aiScene *result = 0 ;
	9031
	9032	arg1 = (Assimp::Importer *)jarg1;
	9033	arg2 = (char *)jarg2;
	9034	arg3 = (unsigned int)jarg3;
	9035	result = (aiScene )(arg1)->ReadFile((char const )arg2,arg3);
	9036	jresult = (void *)result;
	9037	return jresult;
	9038	}
	9039
	9040
	9041	SWIGEXPORT void SWIGSTDCALL CSharp_Importer_FreeScene(void * jarg1) {
	9042	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9043
	9044	arg1 = (Assimp::Importer *)jarg1;
	9045	(arg1)->FreeScene();
	9046	}
	9047
	9048
	9049	SWIGEXPORT char * SWIGSTDCALL CSharp_Importer_GetErrorString(void * jarg1) {
	9050	char * jresult ;
	9051	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9052	char *result = 0 ;
	9053
	9054	arg1 = (Assimp::Importer *)jarg1;
	9055	result = (char )((Assimp::Importer const )arg1)->GetErrorString();
	9056	jresult = SWIG_csharp_string_callback((const char *)result);
	9057	return jresult;
	9058	}
	9059
	9060
	9061	SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_GetScene(void * jarg1) {
	9062	void * jresult ;
	9063	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9064	aiScene *result = 0 ;
	9065
	9066	arg1 = (Assimp::Importer *)jarg1;
	9067	result = (aiScene )((Assimp::Importer const )arg1)->GetScene();
	9068	jresult = (void *)result;
	9069	return jresult;
	9070	}
	9071
	9072
	9073	SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_GetOrphanedScene(void * jarg1) {
	9074	void * jresult ;
	9075	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9076	aiScene *result = 0 ;
	9077
	9078	arg1 = (Assimp::Importer *)jarg1;
	9079	result = (aiScene *)(arg1)->GetOrphanedScene();
	9080	jresult = (void *)result;
	9081	return jresult;
	9082	}
	9083
	9084
	9085	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_IsExtensionSupported__SWIG_0(void * jarg1, char * jarg2) {
	9086	unsigned int jresult ;
	9087	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9088	char arg2 = (char ) 0 ;
	9089	bool result;
	9090
	9091	arg1 = (Assimp::Importer *)jarg1;
	9092	arg2 = (char *)jarg2;
	9093	result = (bool)((Assimp::Importer const )arg1)->IsExtensionSupported((char const )arg2);
	9094	jresult = result;
	9095	return jresult;
	9096	}
	9097
	9098
	9099	SWIGEXPORT void SWIGSTDCALL CSharp_Importer_GetExtensionList__SWIG_0(void * jarg1, void * jarg2) {
	9100	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9101	aiString *arg2 = 0 ;
	9102
	9103	arg1 = (Assimp::Importer *)jarg1;
	9104	arg2 = (aiString *)jarg2;
	9105	if (!arg2) {
	9106	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiString & type is null", 0);
	9107	return ;
	9108	}
	9109	((Assimp::Importer const )arg1)->GetExtensionList(arg2);
	9110	}
	9111
	9112
	9113	SWIGEXPORT void SWIGSTDCALL CSharp_Importer_GetExtensionList__SWIG_1(void * jarg1, void * jarg2) {
	9114	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9115	std::string *arg2 = 0 ;
	9116
	9117	arg1 = (Assimp::Importer *)jarg1;
	9118	arg2 = (std::string *)jarg2;
	9119	if (!arg2) {
	9120	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::string & type is null", 0);
	9121	return ;
	9122	}
	9123	((Assimp::Importer const )arg1)->GetExtensionList(arg2);
	9124	}
	9125
	9126
	9127	SWIGEXPORT unsigned long SWIGSTDCALL CSharp_Importer_GetImporterCount(void * jarg1) {
	9128	unsigned long jresult ;
	9129	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9130	size_t result;
	9131
	9132	arg1 = (Assimp::Importer *)jarg1;
	9133	result = ((Assimp::Importer const *)arg1)->GetImporterCount();
	9134	jresult = (unsigned long)result;
	9135	return jresult;
	9136	}
	9137
	9138
	9139	SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_GetImporterInfo(void * jarg1, unsigned long jarg2) {
	9140	void * jresult ;
	9141	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9142	size_t arg2 ;
	9143	aiImporterDesc *result = 0 ;
	9144
	9145	arg1 = (Assimp::Importer *)jarg1;
	9146	arg2 = (size_t)jarg2;
	9147	result = (aiImporterDesc )((Assimp::Importer const )arg1)->GetImporterInfo(arg2);
	9148	jresult = (void *)result;
	9149	return jresult;
	9150	}
	9151
	9152
	9153	SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_GetImporter__SWIG_0(void * jarg1, unsigned long jarg2) {
	9154	void * jresult ;
	9155	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9156	size_t arg2 ;
	9157	Assimp::BaseImporter *result = 0 ;
	9158
	9159	arg1 = (Assimp::Importer *)jarg1;
	9160	arg2 = (size_t)jarg2;
	9161	result = (Assimp::BaseImporter )((Assimp::Importer const )arg1)->GetImporter(arg2);
	9162	jresult = (void *)result;
	9163	return jresult;
	9164	}
	9165
	9166
	9167	SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_GetImporter__SWIG_1(void * jarg1, char * jarg2) {
	9168	void * jresult ;
	9169	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9170	char arg2 = (char ) 0 ;
	9171	Assimp::BaseImporter *result = 0 ;
	9172
	9173	arg1 = (Assimp::Importer *)jarg1;
	9174	arg2 = (char *)jarg2;
	9175	result = (Assimp::BaseImporter )((Assimp::Importer const )arg1)->GetImporter((char const *)arg2);
	9176	jresult = (void *)result;
	9177	return jresult;
	9178	}
	9179
	9180
	9181	SWIGEXPORT unsigned long SWIGSTDCALL CSharp_Importer_GetImporterIndex(void * jarg1, char * jarg2) {
	9182	unsigned long jresult ;
	9183	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9184	char arg2 = (char ) 0 ;
	9185	size_t result;
	9186
	9187	arg1 = (Assimp::Importer *)jarg1;
	9188	arg2 = (char *)jarg2;
	9189	result = ((Assimp::Importer const )arg1)->GetImporterIndex((char const )arg2);
	9190	jresult = (unsigned long)result;
	9191	return jresult;
	9192	}
	9193
	9194
	9195	SWIGEXPORT void SWIGSTDCALL CSharp_Importer_GetMemoryRequirements(void * jarg1, void * jarg2) {
	9196	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9197	aiMemoryInfo *arg2 = 0 ;
	9198
	9199	arg1 = (Assimp::Importer *)jarg1;
	9200	arg2 = (aiMemoryInfo *)jarg2;
	9201	if (!arg2) {
	9202	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMemoryInfo & type is null", 0);
	9203	return ;
	9204	}
	9205	((Assimp::Importer const )arg1)->GetMemoryRequirements(arg2);
	9206	}
	9207
	9208
	9209	SWIGEXPORT void SWIGSTDCALL CSharp_Importer_SetExtraVerbose(void * jarg1, unsigned int jarg2) {
	9210	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9211	bool arg2 ;
	9212
	9213	arg1 = (Assimp::Importer *)jarg1;
	9214	arg2 = jarg2 ? true : false;
	9215	(arg1)->SetExtraVerbose(arg2);
	9216	}
	9217
	9218
	9219	SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_Pimpl__SWIG_0(void * jarg1) {
	9220	void * jresult ;
	9221	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9222	Assimp::ImporterPimpl *result = 0 ;
	9223
	9224	arg1 = (Assimp::Importer *)jarg1;
	9225	result = (Assimp::ImporterPimpl *)(arg1)->Pimpl();
	9226	jresult = (void *)result;
	9227	return jresult;
	9228	}
	9229
	9230
	9231	SWIGEXPORT char * SWIGSTDCALL CSharp_Importer_GetExtensionList__SWIG_2(void * jarg1) {
	9232	char * jresult ;
	9233	Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
	9234	std::string result;
	9235
	9236	arg1 = (Assimp::Importer *)jarg1;
	9237	result = Assimp_Importer_GetExtensionList__SWIG_2(arg1);
	9238	jresult = SWIG_csharp_string_callback((&result)->c_str());
	9239	return jresult;
	9240	}
	9241
	9242
	9243	SWIGEXPORT void SWIGSTDCALL CSharp_delete_ProgressHandler(void * jarg1) {
	9244	Assimp::ProgressHandler arg1 = (Assimp::ProgressHandler ) 0 ;
	9245
	9246	arg1 = (Assimp::ProgressHandler *)jarg1;
	9247	delete arg1;
	9248	}
	9249
	9250
	9251	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_ProgressHandler_Update__SWIG_0(void * jarg1, float jarg2) {
	9252	unsigned int jresult ;
	9253	Assimp::ProgressHandler arg1 = (Assimp::ProgressHandler ) 0 ;
4782	9254	float arg2 ;
4783		float arg3 ;
4784
4785		arg1 = (aiVector2D *)jarg1;
	9255	bool result;
	9256
	9257	arg1 = (Assimp::ProgressHandler *)jarg1;
4786	9258	arg2 = (float)jarg2;
4787		arg3 = (float)jarg3;
4788		(arg1)->Set(arg2,arg3);
4789		}
4790
4791
4792		SWIGEXPORT float SWIGSTDCALL CSharp_aiVector2D_SquareLength(void * jarg1) {
4793		float jresult ;
4794		aiVector2D arg1 = (aiVector2D ) 0 ;
4795		float result;
4796
4797		arg1 = (aiVector2D *)jarg1;
4798		result = (float)((aiVector2D const *)arg1)->SquareLength();
4799		jresult = result;
4800		return jresult;
4801		}
4802
4803
4804		SWIGEXPORT float SWIGSTDCALL CSharp_aiVector2D_Length(void * jarg1) {
4805		float jresult ;
4806		aiVector2D arg1 = (aiVector2D ) 0 ;
4807		float result;
4808
4809		arg1 = (aiVector2D *)jarg1;
4810		result = (float)((aiVector2D const *)arg1)->Length();
4811		jresult = result;
4812		return jresult;
4813		}
4814
4815
4816		SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D_Normalize(void * jarg1) {
4817		void * jresult ;
4818		aiVector2D arg1 = (aiVector2D ) 0 ;
4819		aiVector2D *result = 0 ;
4820
4821		arg1 = (aiVector2D *)jarg1;
4822		result = (aiVector2D *) &(arg1)->Normalize();
4823		jresult = (void *)result;
4824		return jresult;
4825		}
4826
4827
4828		SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D___addnset__(void * jarg1, void * jarg2) {
4829		void * jresult ;
4830		aiVector2D arg1 = (aiVector2D ) 0 ;
4831		aiVector2D *arg2 = 0 ;
4832		aiVector2D *result = 0 ;
4833
4834		arg1 = (aiVector2D *)jarg1;
4835		arg2 = (aiVector2D *)jarg2;
4836		if (!arg2) {
4837		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
4838		return 0;
4839		}
4840		result = (aiVector2D ) &(arg1)->operator +=((aiVector2D const &)arg2);
4841		jresult = (void *)result;
4842		return jresult;
4843		}
4844
4845
4846		SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D___subnset__(void * jarg1, void * jarg2) {
4847		void * jresult ;
4848		aiVector2D arg1 = (aiVector2D ) 0 ;
4849		aiVector2D *arg2 = 0 ;
4850		aiVector2D *result = 0 ;
4851
4852		arg1 = (aiVector2D *)jarg1;
4853		arg2 = (aiVector2D *)jarg2;
4854		if (!arg2) {
4855		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
4856		return 0;
4857		}
4858		result = (aiVector2D ) &(arg1)->operator -=((aiVector2D const &)arg2);
4859		jresult = (void *)result;
4860		return jresult;
4861		}
4862
4863
4864		SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D___mulnset__(void * jarg1, float jarg2) {
4865		void * jresult ;
4866		aiVector2D arg1 = (aiVector2D ) 0 ;
4867		float arg2 ;
4868		aiVector2D *result = 0 ;
4869
4870		arg1 = (aiVector2D *)jarg1;
4871		arg2 = (float)jarg2;
4872		result = (aiVector2D ) &(arg1)->operator =(arg2);
4873		jresult = (void *)result;
4874		return jresult;
4875		}
4876
4877
4878		SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D___divnset__(void * jarg1, float jarg2) {
4879		void * jresult ;
4880		aiVector2D arg1 = (aiVector2D ) 0 ;
4881		float arg2 ;
4882		aiVector2D *result = 0 ;
4883
4884		arg1 = (aiVector2D *)jarg1;
4885		arg2 = (float)jarg2;
4886		result = (aiVector2D *) &(arg1)->operator /=(arg2);
4887		jresult = (void *)result;
4888		return jresult;
4889		}
4890
4891
4892		SWIGEXPORT float SWIGSTDCALL CSharp_aiVector2D___idx____SWIG_0(void * jarg1, unsigned int jarg2) {
4893		float jresult ;
4894		aiVector2D arg1 = (aiVector2D ) 0 ;
4895		unsigned int arg2 ;
4896		float result;
4897
4898		arg1 = (aiVector2D *)jarg1;
4899		arg2 = (unsigned int)jarg2;
4900		result = (float)((aiVector2D const *)arg1)->operator [](arg2);
4901		jresult = result;
4902		return jresult;
4903		}
4904
4905
4906		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVector2D___equal__(void * jarg1, void * jarg2) {
	9259	result = (bool)(arg1)->Update(arg2);
	9260	jresult = result;
	9261	return jresult;
	9262	}
	9263
	9264
	9265	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_ProgressHandler_Update__SWIG_1(void * jarg1) {
4907	9266	unsigned int jresult ;
4908		aiVector2D arg1 = (aiVector2D ) 0 ;
4909		aiVector2D *arg2 = 0 ;
	9267	Assimp::ProgressHandler arg1 = (Assimp::ProgressHandler ) 0 ;
4910	9268	bool result;
4911	9269
4912		arg1 = (aiVector2D *)jarg1;
4913		arg2 = (aiVector2D *)jarg2;
4914		if (!arg2) {
4915		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
4916		return 0;
4917		}
4918		result = (bool)((aiVector2D const )arg1)->operator ==((aiVector2D const &)arg2);
4919		jresult = result;
4920		return jresult;
4921		}
4922
4923
4924		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVector2D___nequal__(void * jarg1, void * jarg2) {
4925		unsigned int jresult ;
4926		aiVector2D arg1 = (aiVector2D ) 0 ;
4927		aiVector2D *arg2 = 0 ;
4928		bool result;
4929
4930		arg1 = (aiVector2D *)jarg1;
4931		arg2 = (aiVector2D *)jarg2;
4932		if (!arg2) {
4933		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
4934		return 0;
4935		}
4936		result = (bool)((aiVector2D const )arg1)->operator !=((aiVector2D const &)arg2);
4937		jresult = result;
4938		return jresult;
4939		}
4940
4941
4942		SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D___set__(void * jarg1, float jarg2) {
4943		void * jresult ;
4944		aiVector2D arg1 = (aiVector2D ) 0 ;
4945		float arg2 ;
4946		aiVector2D *result = 0 ;
4947
4948		arg1 = (aiVector2D *)jarg1;
4949		arg2 = (float)jarg2;
4950		result = (aiVector2D *) &(arg1)->operator =(arg2);
4951		jresult = (void *)result;
4952		return jresult;
4953		}
4954
4955
4956		SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D_SymMul(void * jarg1, void * jarg2) {
4957		void * jresult ;
4958		aiVector2D arg1 = (aiVector2D ) 0 ;
4959		aiVector2D *arg2 = 0 ;
4960		aiVector2D result;
4961
4962		arg1 = (aiVector2D *)jarg1;
4963		arg2 = (aiVector2D *)jarg2;
4964		if (!arg2) {
4965		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
4966		return 0;
4967		}
4968		result = (arg1)->SymMul((aiVector2D const &)*arg2);
4969		jresult = new aiVector2D((const aiVector2D &)result);
4970		return jresult;
4971		}
4972
4973
4974		SWIGEXPORT void SWIGSTDCALL CSharp_aiVector2D_x_set(void * jarg1, float jarg2) {
4975		aiVector2D arg1 = (aiVector2D ) 0 ;
4976		float arg2 ;
4977
4978		arg1 = (aiVector2D *)jarg1;
4979		arg2 = (float)jarg2;
4980		if (arg1) (arg1)->x = arg2;
4981		}
4982
4983
4984		SWIGEXPORT float SWIGSTDCALL CSharp_aiVector2D_x_get(void * jarg1) {
4985		float jresult ;
4986		aiVector2D arg1 = (aiVector2D ) 0 ;
4987		float result;
4988
4989		arg1 = (aiVector2D *)jarg1;
4990		result = (float) ((arg1)->x);
4991		jresult = result;
4992		return jresult;
4993		}
4994
4995
4996		SWIGEXPORT void SWIGSTDCALL CSharp_aiVector2D_y_set(void * jarg1, float jarg2) {
4997		aiVector2D arg1 = (aiVector2D ) 0 ;
4998		float arg2 ;
4999
5000		arg1 = (aiVector2D *)jarg1;
5001		arg2 = (float)jarg2;
5002		if (arg1) (arg1)->y = arg2;
5003		}
5004
5005
5006		SWIGEXPORT float SWIGSTDCALL CSharp_aiVector2D_y_get(void * jarg1) {
5007		float jresult ;
5008		aiVector2D arg1 = (aiVector2D ) 0 ;
5009		float result;
5010
5011		arg1 = (aiVector2D *)jarg1;
5012		result = (float) ((arg1)->y);
5013		jresult = result;
5014		return jresult;
5015		}
5016
5017
5018		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiVector2D(void * jarg1) {
5019		aiVector2D arg1 = (aiVector2D ) 0 ;
5020
5021		arg1 = (aiVector2D *)jarg1;
5022		delete arg1;
5023		}
5024
5025
5026		SWIGEXPORT void * SWIGSTDCALL CSharp___add__(void * jarg1, void * jarg2) {
5027		void * jresult ;
5028		aiVector2D *arg1 = 0 ;
5029		aiVector2D *arg2 = 0 ;
5030		aiVector2D result;
5031
5032		arg1 = (aiVector2D *)jarg1;
5033		if (!arg1) {
5034		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5035		return 0;
5036		}
5037		arg2 = (aiVector2D *)jarg2;
5038		if (!arg2) {
5039		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5040		return 0;
5041		}
5042		result = operator +((aiVector2D const &)arg1,(aiVector2D const &)arg2);
5043		jresult = new aiVector2D((const aiVector2D &)result);
5044		return jresult;
5045		}
5046
5047
5048		SWIGEXPORT void * SWIGSTDCALL CSharp___sub____SWIG_0(void * jarg1, void * jarg2) {
5049		void * jresult ;
5050		aiVector2D *arg1 = 0 ;
5051		aiVector2D *arg2 = 0 ;
5052		aiVector2D result;
5053
5054		arg1 = (aiVector2D *)jarg1;
5055		if (!arg1) {
5056		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5057		return 0;
5058		}
5059		arg2 = (aiVector2D *)jarg2;
5060		if (!arg2) {
5061		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5062		return 0;
5063		}
5064		result = operator -((aiVector2D const &)arg1,(aiVector2D const &)arg2);
5065		jresult = new aiVector2D((const aiVector2D &)result);
5066		return jresult;
5067		}
5068
5069
5070		SWIGEXPORT float SWIGSTDCALL CSharp___mul____SWIG_0(void * jarg1, void * jarg2) {
5071		float jresult ;
5072		aiVector2D *arg1 = 0 ;
5073		aiVector2D *arg2 = 0 ;
5074		float result;
5075
5076		arg1 = (aiVector2D *)jarg1;
5077		if (!arg1) {
5078		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5079		return 0;
5080		}
5081		arg2 = (aiVector2D *)jarg2;
5082		if (!arg2) {
5083		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5084		return 0;
5085		}
5086		result = (float)operator ((aiVector2D const &)arg1,(aiVector2D const &)*arg2);
5087		jresult = result;
5088		return jresult;
5089		}
5090
5091
5092		SWIGEXPORT void * SWIGSTDCALL CSharp___mul____SWIG_1(float jarg1, void * jarg2) {
5093		void * jresult ;
5094		float arg1 ;
5095		aiVector2D *arg2 = 0 ;
5096		aiVector2D result;
5097
5098		arg1 = (float)jarg1;
5099		arg2 = (aiVector2D *)jarg2;
5100		if (!arg2) {
5101		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5102		return 0;
5103		}
5104		result = operator (arg1,(aiVector2D const &)arg2);
5105		jresult = new aiVector2D((const aiVector2D &)result);
5106		return jresult;
5107		}
5108
5109
5110		SWIGEXPORT void * SWIGSTDCALL CSharp___mul____SWIG_2(void * jarg1, float jarg2) {
5111		void * jresult ;
5112		aiVector2D *arg1 = 0 ;
5113		float arg2 ;
5114		aiVector2D result;
5115
5116		arg1 = (aiVector2D *)jarg1;
5117		if (!arg1) {
5118		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5119		return 0;
5120		}
5121		arg2 = (float)jarg2;
5122		result = operator ((aiVector2D const &)arg1,arg2);
5123		jresult = new aiVector2D((const aiVector2D &)result);
5124		return jresult;
5125		}
5126
5127
5128		SWIGEXPORT void * SWIGSTDCALL CSharp___div____SWIG_0(void * jarg1, float jarg2) {
5129		void * jresult ;
5130		aiVector2D *arg1 = 0 ;
5131		float arg2 ;
5132		aiVector2D result;
5133
5134		arg1 = (aiVector2D *)jarg1;
5135		if (!arg1) {
5136		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5137		return 0;
5138		}
5139		arg2 = (float)jarg2;
5140		result = operator /((aiVector2D const &)*arg1,arg2);
5141		jresult = new aiVector2D((const aiVector2D &)result);
5142		return jresult;
5143		}
5144
5145
5146		SWIGEXPORT void * SWIGSTDCALL CSharp___div____SWIG_1(void * jarg1, void * jarg2) {
5147		void * jresult ;
5148		aiVector2D *arg1 = 0 ;
5149		aiVector2D *arg2 = 0 ;
5150		aiVector2D result;
5151
5152		arg1 = (aiVector2D *)jarg1;
5153		if (!arg1) {
5154		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5155		return 0;
5156		}
5157		arg2 = (aiVector2D *)jarg2;
5158		if (!arg2) {
5159		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5160		return 0;
5161		}
5162		result = operator /((aiVector2D const &)arg1,(aiVector2D const &)arg2);
5163		jresult = new aiVector2D((const aiVector2D &)result);
5164		return jresult;
5165		}
5166
5167
5168		SWIGEXPORT void * SWIGSTDCALL CSharp___sub____SWIG_1(void * jarg1) {
5169		void * jresult ;
5170		aiVector2D *arg1 = 0 ;
5171		aiVector2D result;
5172
5173		arg1 = (aiVector2D *)jarg1;
5174		if (!arg1) {
5175		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
5176		return 0;
5177		}
5178		result = operator -((aiVector2D const &)*arg1);
5179		jresult = new aiVector2D((const aiVector2D &)result);
5180		return jresult;
5181		}
5182
5183
5184		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector3D__SWIG_0() {
5185		void * jresult ;
5186		aiVector3D *result = 0 ;
5187
5188		result = (aiVector3D *)new aiVector3D();
5189		jresult = (void *)result;
5190		return jresult;
5191		}
5192
5193
5194		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector3D__SWIG_1(float jarg1, float jarg2, float jarg3) {
	9270	arg1 = (Assimp::ProgressHandler *)jarg1;
	9271	result = (bool)(arg1)->Update();
	9272	jresult = result;
	9273	return jresult;
	9274	}
	9275
	9276
	9277	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4D__SWIG_0() {
	9278	void * jresult ;
	9279	aiColor4t< float > *result = 0 ;
	9280
	9281	result = (aiColor4t< float > *)new aiColor4t< float >();
	9282	jresult = (void *)result;
	9283	return jresult;
	9284	}
	9285
	9286
	9287	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4D__SWIG_1(float jarg1, float jarg2, float jarg3, float jarg4) {
5195	9288	void * jresult ;
5196	9289	float arg1 ;
5197	9290	float arg2 ;
5198	9291	float arg3 ;
5199		aiVector3D *result = 0 ;
	9292	float arg4 ;
	9293	aiColor4t< float > *result = 0 ;
5200	9294
5201	9295	arg1 = (float)jarg1;
5202	9296	arg2 = (float)jarg2;
5203	9297	arg3 = (float)jarg3;
5204		result = (aiVector3D *)new aiVector3D(arg1,arg2,arg3);
	9298	arg4 = (float)jarg4;
	9299	result = (aiColor4t< float > *)new aiColor4t< float >(arg1,arg2,arg3,arg4);
	9300	jresult = (void *)result;
	9301	return jresult;
	9302	}
	9303
	9304
	9305	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4D__SWIG_2(float jarg1) {
	9306	void * jresult ;
	9307	float arg1 ;
	9308	aiColor4t< float > *result = 0 ;
	9309
	9310	arg1 = (float)jarg1;
	9311	result = (aiColor4t< float > *)new aiColor4t< float >(arg1);
	9312	jresult = (void *)result;
	9313	return jresult;
	9314	}
	9315
	9316
	9317	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4D__SWIG_3(void * jarg1) {
	9318	void * jresult ;
	9319	aiColor4t< float > *arg1 = 0 ;
	9320	aiColor4t< float > *result = 0 ;
	9321
	9322	arg1 = (aiColor4t< float > *)jarg1;
	9323	if (!arg1) {
	9324	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiColor4t< float > const & type is null", 0);
	9325	return 0;
	9326	}
	9327	result = (aiColor4t< float > )new aiColor4t< float >((aiColor4t< float > const &)arg1);
	9328	jresult = (void *)result;
	9329	return jresult;
	9330	}
	9331
	9332
	9333	SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4D___addnset__(void * jarg1, void * jarg2) {
	9334	void * jresult ;
	9335	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9336	aiColor4t< float > *arg2 = 0 ;
	9337	aiColor4t< float > *result = 0 ;
	9338
	9339	arg1 = (aiColor4t< float > *)jarg1;
	9340	arg2 = (aiColor4t< float > *)jarg2;
	9341	if (!arg2) {
	9342	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiColor4t< float > const & type is null", 0);
	9343	return 0;
	9344	}
	9345	result = (aiColor4t< float > ) &(arg1)->operator +=((aiColor4t< float > const &)arg2);
	9346	jresult = (void *)result;
	9347	return jresult;
	9348	}
	9349
	9350
	9351	SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4D___subnset__(void * jarg1, void * jarg2) {
	9352	void * jresult ;
	9353	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9354	aiColor4t< float > *arg2 = 0 ;
	9355	aiColor4t< float > *result = 0 ;
	9356
	9357	arg1 = (aiColor4t< float > *)jarg1;
	9358	arg2 = (aiColor4t< float > *)jarg2;
	9359	if (!arg2) {
	9360	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiColor4t< float > const & type is null", 0);
	9361	return 0;
	9362	}
	9363	result = (aiColor4t< float > ) &(arg1)->operator -=((aiColor4t< float > const &)arg2);
	9364	jresult = (void *)result;
	9365	return jresult;
	9366	}
	9367
	9368
	9369	SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4D___mulnset__(void * jarg1, float jarg2) {
	9370	void * jresult ;
	9371	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9372	float arg2 ;
	9373	aiColor4t< float > *result = 0 ;
	9374
	9375	arg1 = (aiColor4t< float > *)jarg1;
	9376	arg2 = (float)jarg2;
	9377	result = (aiColor4t< float > ) &(arg1)->operator =(arg2);
	9378	jresult = (void *)result;
	9379	return jresult;
	9380	}
	9381
	9382
	9383	SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4D___divnset__(void * jarg1, float jarg2) {
	9384	void * jresult ;
	9385	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9386	float arg2 ;
	9387	aiColor4t< float > *result = 0 ;
	9388
	9389	arg1 = (aiColor4t< float > *)jarg1;
	9390	arg2 = (float)jarg2;
	9391	result = (aiColor4t< float > *) &(arg1)->operator /=(arg2);
	9392	jresult = (void *)result;
	9393	return jresult;
	9394	}
	9395
	9396
	9397	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiColor4D___equal__(void * jarg1, void * jarg2) {
	9398	unsigned int jresult ;
	9399	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9400	aiColor4t< float > *arg2 = 0 ;
	9401	bool result;
	9402
	9403	arg1 = (aiColor4t< float > *)jarg1;
	9404	arg2 = (aiColor4t< float > *)jarg2;
	9405	if (!arg2) {
	9406	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiColor4t< float > const & type is null", 0);
	9407	return 0;
	9408	}
	9409	result = (bool)((aiColor4t< float > const )arg1)->operator ==((aiColor4t< float > const &)arg2);
	9410	jresult = result;
	9411	return jresult;
	9412	}
	9413
	9414
	9415	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiColor4D___nequal__(void * jarg1, void * jarg2) {
	9416	unsigned int jresult ;
	9417	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9418	aiColor4t< float > *arg2 = 0 ;
	9419	bool result;
	9420
	9421	arg1 = (aiColor4t< float > *)jarg1;
	9422	arg2 = (aiColor4t< float > *)jarg2;
	9423	if (!arg2) {
	9424	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiColor4t< float > const & type is null", 0);
	9425	return 0;
	9426	}
	9427	result = (bool)((aiColor4t< float > const )arg1)->operator !=((aiColor4t< float > const &)arg2);
	9428	jresult = result;
	9429	return jresult;
	9430	}
	9431
	9432
	9433	SWIGEXPORT float SWIGSTDCALL CSharp_aiColor4D___idx____SWIG_0(void * jarg1, unsigned int jarg2) {
	9434	float jresult ;
	9435	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9436	unsigned int arg2 ;
	9437	float result;
	9438
	9439	arg1 = (aiColor4t< float > *)jarg1;
	9440	arg2 = (unsigned int)jarg2;
	9441	result = (float)((aiColor4t< float > const *)arg1)->operator [](arg2);
	9442	jresult = result;
	9443	return jresult;
	9444	}
	9445
	9446
	9447	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiColor4D_IsBlack(void * jarg1) {
	9448	unsigned int jresult ;
	9449	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9450	bool result;
	9451
	9452	arg1 = (aiColor4t< float > *)jarg1;
	9453	result = (bool)((aiColor4t< float > const *)arg1)->IsBlack();
	9454	jresult = result;
	9455	return jresult;
	9456	}
	9457
	9458
	9459	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4D_r_set(void * jarg1, float jarg2) {
	9460	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9461	float arg2 ;
	9462
	9463	arg1 = (aiColor4t< float > *)jarg1;
	9464	arg2 = (float)jarg2;
	9465	if (arg1) (arg1)->r = arg2;
	9466	}
	9467
	9468
	9469	SWIGEXPORT float SWIGSTDCALL CSharp_aiColor4D_r_get(void * jarg1) {
	9470	float jresult ;
	9471	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9472	float result;
	9473
	9474	arg1 = (aiColor4t< float > *)jarg1;
	9475	result = (float) ((arg1)->r);
	9476	jresult = result;
	9477	return jresult;
	9478	}
	9479
	9480
	9481	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4D_g_set(void * jarg1, float jarg2) {
	9482	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9483	float arg2 ;
	9484
	9485	arg1 = (aiColor4t< float > *)jarg1;
	9486	arg2 = (float)jarg2;
	9487	if (arg1) (arg1)->g = arg2;
	9488	}
	9489
	9490
	9491	SWIGEXPORT float SWIGSTDCALL CSharp_aiColor4D_g_get(void * jarg1) {
	9492	float jresult ;
	9493	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9494	float result;
	9495
	9496	arg1 = (aiColor4t< float > *)jarg1;
	9497	result = (float) ((arg1)->g);
	9498	jresult = result;
	9499	return jresult;
	9500	}
	9501
	9502
	9503	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4D_b_set(void * jarg1, float jarg2) {
	9504	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9505	float arg2 ;
	9506
	9507	arg1 = (aiColor4t< float > *)jarg1;
	9508	arg2 = (float)jarg2;
	9509	if (arg1) (arg1)->b = arg2;
	9510	}
	9511
	9512
	9513	SWIGEXPORT float SWIGSTDCALL CSharp_aiColor4D_b_get(void * jarg1) {
	9514	float jresult ;
	9515	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9516	float result;
	9517
	9518	arg1 = (aiColor4t< float > *)jarg1;
	9519	result = (float) ((arg1)->b);
	9520	jresult = result;
	9521	return jresult;
	9522	}
	9523
	9524
	9525	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4D_a_set(void * jarg1, float jarg2) {
	9526	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9527	float arg2 ;
	9528
	9529	arg1 = (aiColor4t< float > *)jarg1;
	9530	arg2 = (float)jarg2;
	9531	if (arg1) (arg1)->a = arg2;
	9532	}
	9533
	9534
	9535	SWIGEXPORT float SWIGSTDCALL CSharp_aiColor4D_a_get(void * jarg1) {
	9536	float jresult ;
	9537	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9538	float result;
	9539
	9540	arg1 = (aiColor4t< float > *)jarg1;
	9541	result = (float) ((arg1)->a);
	9542	jresult = result;
	9543	return jresult;
	9544	}
	9545
	9546
	9547	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiColor4D(void * jarg1) {
	9548	aiColor4t< float > arg1 = (aiColor4t< float > ) 0 ;
	9549
	9550	arg1 = (aiColor4t< float > *)jarg1;
	9551	delete arg1;
	9552	}
	9553
	9554
	9555	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector3D__SWIG_0() {
	9556	void * jresult ;
	9557	aiVector3t< float > *result = 0 ;
	9558
	9559	result = (aiVector3t< float > *)new aiVector3t< float >();
	9560	jresult = (void *)result;
	9561	return jresult;
	9562	}
	9563
	9564
	9565	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector3D__SWIG_1(float jarg1, float jarg2, float jarg3) {
	9566	void * jresult ;
	9567	float arg1 ;
	9568	float arg2 ;
	9569	float arg3 ;
	9570	aiVector3t< float > *result = 0 ;
	9571
	9572	arg1 = (float)jarg1;
	9573	arg2 = (float)jarg2;
	9574	arg3 = (float)jarg3;
	9575	result = (aiVector3t< float > *)new aiVector3t< float >(arg1,arg2,arg3);
5205	9576	jresult = (void *)result;
5206	9577	return jresult;
5207	9578	}

5210	9581	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector3D__SWIG_2(float jarg1) {
5211	9582	void * jresult ;
5212	9583	float arg1 ;
5213		aiVector3D *result = 0 ;
	9584	aiVector3t< float > *result = 0 ;
5214	9585
5215	9586	arg1 = (float)jarg1;
5216		result = (aiVector3D *)new aiVector3D(arg1);
	9587	result = (aiVector3t< float > *)new aiVector3t< float >(arg1);
5217	9588	jresult = (void *)result;
5218	9589	return jresult;
5219	9590	}

5221	9592
5222	9593	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector3D__SWIG_3(void * jarg1) {
5223	9594	void * jresult ;
5224		aiVector3D *arg1 = 0 ;
5225		aiVector3D *result = 0 ;
5226
5227		arg1 = (aiVector3D *)jarg1;
	9595	aiVector3t< float > *arg1 = 0 ;
	9596	aiVector3t< float > *result = 0 ;
	9597
	9598	arg1 = (aiVector3t< float > *)jarg1;
5228	9599	if (!arg1) {
5229		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	9600	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
5230	9601	return 0;
5231	9602	}
5232		result = (aiVector3D )new aiVector3D((aiVector3D const &)arg1);
	9603	result = (aiVector3t< float > )new aiVector3t< float >((aiVector3t< float > const &)arg1);
5233	9604	jresult = (void *)result;
5234	9605	return jresult;
5235	9606	}

5237	9608
5238	9609	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector3D___addnset__(void * jarg1, void * jarg2) {
5239	9610	void * jresult ;
5240		aiVector3D arg1 = (aiVector3D ) 0 ;
5241		aiVector3D *arg2 = 0 ;
5242		aiVector3D *result = 0 ;
5243
5244		arg1 = (aiVector3D *)jarg1;
5245		arg2 = (aiVector3D *)jarg2;
	9611	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
	9612	aiVector3t< float > *arg2 = 0 ;
	9613	aiVector3t< float > *result = 0 ;
	9614
	9615	arg1 = (aiVector3t< float > *)jarg1;
	9616	arg2 = (aiVector3t< float > *)jarg2;
5246	9617	if (!arg2) {
5247		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	9618	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
5248	9619	return 0;
5249	9620	}
5250		result = (aiVector3D ) &(arg1)->operator +=((aiVector3D const &)arg2);
	9621	result = (aiVector3t< float > ) &(arg1)->operator +=((aiVector3t< float > const &)arg2);
5251	9622	jresult = (void *)result;
5252	9623	return jresult;
5253	9624	}

5255	9626
5256	9627	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector3D___subnset__(void * jarg1, void * jarg2) {
5257	9628	void * jresult ;
5258		aiVector3D arg1 = (aiVector3D ) 0 ;
5259		aiVector3D *arg2 = 0 ;
5260		aiVector3D *result = 0 ;
5261
5262		arg1 = (aiVector3D *)jarg1;
5263		arg2 = (aiVector3D *)jarg2;
	9629	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
	9630	aiVector3t< float > *arg2 = 0 ;
	9631	aiVector3t< float > *result = 0 ;
	9632
	9633	arg1 = (aiVector3t< float > *)jarg1;
	9634	arg2 = (aiVector3t< float > *)jarg2;
5264	9635	if (!arg2) {
5265		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	9636	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
5266	9637	return 0;
5267	9638	}
5268		result = (aiVector3D ) &(arg1)->operator -=((aiVector3D const &)arg2);
	9639	result = (aiVector3t< float > ) &(arg1)->operator -=((aiVector3t< float > const &)arg2);
5269	9640	jresult = (void *)result;
5270	9641	return jresult;
5271	9642	}

5273	9644
5274	9645	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector3D___mulnset____SWIG_0(void * jarg1, float jarg2) {
5275	9646	void * jresult ;
5276		aiVector3D arg1 = (aiVector3D ) 0 ;
	9647	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5277	9648	float arg2 ;
5278		aiVector3D *result = 0 ;
5279
5280		arg1 = (aiVector3D *)jarg1;
	9649	aiVector3t< float > *result = 0 ;
	9650
	9651	arg1 = (aiVector3t< float > *)jarg1;
5281	9652	arg2 = (float)jarg2;
5282		result = (aiVector3D ) &(arg1)->operator =(arg2);
	9653	result = (aiVector3t< float > ) &(arg1)->operator =(arg2);
5283	9654	jresult = (void *)result;
5284	9655	return jresult;
5285	9656	}

5287	9658
5288	9659	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector3D___divnset__(void * jarg1, float jarg2) {
5289	9660	void * jresult ;
5290		aiVector3D arg1 = (aiVector3D ) 0 ;
	9661	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5291	9662	float arg2 ;
5292		aiVector3D *result = 0 ;
5293
5294		arg1 = (aiVector3D *)jarg1;
	9663	aiVector3t< float > *result = 0 ;
	9664
	9665	arg1 = (aiVector3t< float > *)jarg1;
5295	9666	arg2 = (float)jarg2;
5296		result = (aiVector3D *) &(arg1)->operator /=(arg2);
	9667	result = (aiVector3t< float > *) &(arg1)->operator /=(arg2);
5297	9668	jresult = (void *)result;
5298	9669	return jresult;
5299	9670	}

5301	9672
5302	9673	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector3D___mulnset____SWIG_1(void * jarg1, void * jarg2) {
5303	9674	void * jresult ;
5304		aiVector3D arg1 = (aiVector3D ) 0 ;
5305		aiMatrix3x3 *arg2 = 0 ;
5306		aiVector3D *result = 0 ;
5307
5308		arg1 = (aiVector3D *)jarg1;
5309		arg2 = (aiMatrix3x3 *)jarg2;
	9675	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
	9676	aiMatrix3x3t< float > *arg2 = 0 ;
	9677	aiVector3t< float > *result = 0 ;
	9678
	9679	arg1 = (aiVector3t< float > *)jarg1;
	9680	arg2 = (aiMatrix3x3t< float > *)jarg2;
5310	9681	if (!arg2) {
5311		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3 const & type is null", 0);
	9682	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3t< float > const & type is null", 0);
5312	9683	return 0;
5313	9684	}
5314		result = (aiVector3D ) &(arg1)->operator =((aiMatrix3x3 const &)*arg2);
	9685	result = (aiVector3t< float > ) &(arg1)->operator =((aiMatrix3x3t< float > const &)*arg2);
5315	9686	jresult = (void *)result;
5316	9687	return jresult;
5317	9688	}

5319	9690
5320	9691	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector3D___mulnset____SWIG_2(void * jarg1, void * jarg2) {
5321	9692	void * jresult ;
5322		aiVector3D arg1 = (aiVector3D ) 0 ;
5323		aiMatrix4x4 *arg2 = 0 ;
5324		aiVector3D *result = 0 ;
5325
5326		arg1 = (aiVector3D *)jarg1;
5327		arg2 = (aiMatrix4x4 *)jarg2;
	9693	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
	9694	aiMatrix4x4t< float > *arg2 = 0 ;
	9695	aiVector3t< float > *result = 0 ;
	9696
	9697	arg1 = (aiVector3t< float > *)jarg1;
	9698	arg2 = (aiMatrix4x4t< float > *)jarg2;
5328	9699	if (!arg2) {
5329		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 const & type is null", 0);
	9700	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > const & type is null", 0);
5330	9701	return 0;
5331	9702	}
5332		result = (aiVector3D ) &(arg1)->operator =((aiMatrix4x4 const &)*arg2);
	9703	result = (aiVector3t< float > ) &(arg1)->operator =((aiMatrix4x4t< float > const &)*arg2);
5333	9704	jresult = (void *)result;
5334	9705	return jresult;
5335	9706	}

5337	9708
5338	9709	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector3D___idx____SWIG_0(void * jarg1, unsigned int jarg2) {
5339	9710	float jresult ;
5340		aiVector3D arg1 = (aiVector3D ) 0 ;
	9711	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5341	9712	unsigned int arg2 ;
5342	9713	float result;
5343	9714
5344		arg1 = (aiVector3D *)jarg1;
	9715	arg1 = (aiVector3t< float > *)jarg1;
5345	9716	arg2 = (unsigned int)jarg2;
5346		result = (float)((aiVector3D const *)arg1)->operator [](arg2);
	9717	result = (float)((aiVector3t< float > const *)arg1)->operator [](arg2);
5347	9718	jresult = result;
5348	9719	return jresult;
5349	9720	}

5351	9722
5352	9723	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVector3D___equal__(void * jarg1, void * jarg2) {
5353	9724	unsigned int jresult ;
5354		aiVector3D arg1 = (aiVector3D ) 0 ;
5355		aiVector3D *arg2 = 0 ;
	9725	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
	9726	aiVector3t< float > *arg2 = 0 ;
5356	9727	bool result;
5357	9728
5358		arg1 = (aiVector3D *)jarg1;
5359		arg2 = (aiVector3D *)jarg2;
	9729	arg1 = (aiVector3t< float > *)jarg1;
	9730	arg2 = (aiVector3t< float > *)jarg2;
5360	9731	if (!arg2) {
5361		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	9732	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
5362	9733	return 0;
5363	9734	}
5364		result = (bool)((aiVector3D const )arg1)->operator ==((aiVector3D const &)arg2);
	9735	result = (bool)((aiVector3t< float > const )arg1)->operator ==((aiVector3t< float > const &)arg2);
5365	9736	jresult = result;
5366	9737	return jresult;
5367	9738	}

5369	9740
5370	9741	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVector3D___nequal__(void * jarg1, void * jarg2) {
5371	9742	unsigned int jresult ;
5372		aiVector3D arg1 = (aiVector3D ) 0 ;
5373		aiVector3D *arg2 = 0 ;
	9743	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
	9744	aiVector3t< float > *arg2 = 0 ;
5374	9745	bool result;
5375	9746
5376		arg1 = (aiVector3D *)jarg1;
5377		arg2 = (aiVector3D *)jarg2;
	9747	arg1 = (aiVector3t< float > *)jarg1;
	9748	arg2 = (aiVector3t< float > *)jarg2;
5378	9749	if (!arg2) {
5379		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	9750	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
5380	9751	return 0;
5381	9752	}
5382		result = (bool)((aiVector3D const )arg1)->operator !=((aiVector3D const &)arg2);
	9753	result = (bool)((aiVector3t< float > const )arg1)->operator !=((aiVector3t< float > const &)arg2);
5383	9754	jresult = result;
5384	9755	return jresult;
5385	9756	}
5386	9757
5387	9758
5388	9759	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3D_Set(void * jarg1, float jarg2, float jarg3, float jarg4) {
5389		aiVector3D arg1 = (aiVector3D ) 0 ;
	9760	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5390	9761	float arg2 ;
5391	9762	float arg3 ;
5392		float arg4 = (float) 0. ;
5393
5394		arg1 = (aiVector3D *)jarg1;
	9763	float arg4 ;
	9764
	9765	arg1 = (aiVector3t< float > *)jarg1;
5395	9766	arg2 = (float)jarg2;
5396	9767	arg3 = (float)jarg3;
5397	9768	arg4 = (float)jarg4;

5401	9772
5402	9773	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector3D_SquareLength(void * jarg1) {
5403	9774	float jresult ;
5404		aiVector3D arg1 = (aiVector3D ) 0 ;
	9775	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5405	9776	float result;
5406	9777
5407		arg1 = (aiVector3D *)jarg1;
5408		result = (float)((aiVector3D const *)arg1)->SquareLength();
	9778	arg1 = (aiVector3t< float > *)jarg1;
	9779	result = (float)((aiVector3t< float > const *)arg1)->SquareLength();
5409	9780	jresult = result;
5410	9781	return jresult;
5411	9782	}

5413	9784
5414	9785	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector3D_Length(void * jarg1) {
5415	9786	float jresult ;
5416		aiVector3D arg1 = (aiVector3D ) 0 ;
	9787	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5417	9788	float result;
5418	9789
5419		arg1 = (aiVector3D *)jarg1;
5420		result = (float)((aiVector3D const *)arg1)->Length();
	9790	arg1 = (aiVector3t< float > *)jarg1;
	9791	result = (float)((aiVector3t< float > const *)arg1)->Length();
5421	9792	jresult = result;
5422	9793	return jresult;
5423	9794	}

5425	9796
5426	9797	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector3D_Normalize(void * jarg1) {
5427	9798	void * jresult ;
5428		aiVector3D arg1 = (aiVector3D ) 0 ;
5429		aiVector3D *result = 0 ;
5430
5431		arg1 = (aiVector3D *)jarg1;
5432		result = (aiVector3D *) &(arg1)->Normalize();
	9799	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
	9800	aiVector3t< float > *result = 0 ;
	9801
	9802	arg1 = (aiVector3t< float > *)jarg1;
	9803	result = (aiVector3t< float > *) &(arg1)->Normalize();
5433	9804	jresult = (void *)result;
5434	9805	return jresult;
5435	9806	}

5437	9808
5438	9809	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector3D_SymMul(void * jarg1, void * jarg2) {
5439	9810	void * jresult ;
5440		aiVector3D arg1 = (aiVector3D ) 0 ;
5441		aiVector3D *arg2 = 0 ;
5442		aiVector3D result;
5443
5444		arg1 = (aiVector3D *)jarg1;
5445		arg2 = (aiVector3D *)jarg2;
	9811	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
	9812	aiVector3t< float > *arg2 = 0 ;
	9813	aiVector3t< float > result;
	9814
	9815	arg1 = (aiVector3t< float > *)jarg1;
	9816	arg2 = (aiVector3t< float > *)jarg2;
5446	9817	if (!arg2) {
5447		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	9818	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
5448	9819	return 0;
5449	9820	}
5450		result = (arg1)->SymMul((aiVector3D const &)*arg2);
5451		jresult = new aiVector3D((const aiVector3D &)result);
	9821	result = (arg1)->SymMul((aiVector3t< float > const &)*arg2);
	9822	jresult = new aiVector3t< float >((const aiVector3t< float > &)result);
5452	9823	return jresult;
5453	9824	}
5454	9825
5455	9826
5456	9827	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3D_x_set(void * jarg1, float jarg2) {
5457		aiVector3D arg1 = (aiVector3D ) 0 ;
	9828	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5458	9829	float arg2 ;
5459	9830
5460		arg1 = (aiVector3D *)jarg1;
	9831	arg1 = (aiVector3t< float > *)jarg1;
5461	9832	arg2 = (float)jarg2;
5462	9833	if (arg1) (arg1)->x = arg2;
5463	9834	}

5465	9836
5466	9837	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector3D_x_get(void * jarg1) {
5467	9838	float jresult ;
5468		aiVector3D arg1 = (aiVector3D ) 0 ;
	9839	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5469	9840	float result;
5470	9841
5471		arg1 = (aiVector3D *)jarg1;
	9842	arg1 = (aiVector3t< float > *)jarg1;
5472	9843	result = (float) ((arg1)->x);
5473	9844	jresult = result;
5474	9845	return jresult;

5476	9847
5477	9848
5478	9849	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3D_y_set(void * jarg1, float jarg2) {
5479		aiVector3D arg1 = (aiVector3D ) 0 ;
	9850	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5480	9851	float arg2 ;
5481	9852
5482		arg1 = (aiVector3D *)jarg1;
	9853	arg1 = (aiVector3t< float > *)jarg1;
5483	9854	arg2 = (float)jarg2;
5484	9855	if (arg1) (arg1)->y = arg2;
5485	9856	}

5487	9858
5488	9859	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector3D_y_get(void * jarg1) {
5489	9860	float jresult ;
5490		aiVector3D arg1 = (aiVector3D ) 0 ;
	9861	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5491	9862	float result;
5492	9863
5493		arg1 = (aiVector3D *)jarg1;
	9864	arg1 = (aiVector3t< float > *)jarg1;
5494	9865	result = (float) ((arg1)->y);
5495	9866	jresult = result;
5496	9867	return jresult;

5498	9869
5499	9870
5500	9871	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3D_z_set(void * jarg1, float jarg2) {
5501		aiVector3D arg1 = (aiVector3D ) 0 ;
	9872	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5502	9873	float arg2 ;
5503	9874
5504		arg1 = (aiVector3D *)jarg1;
	9875	arg1 = (aiVector3t< float > *)jarg1;
5505	9876	arg2 = (float)jarg2;
5506	9877	if (arg1) (arg1)->z = arg2;
5507	9878	}

5509	9880
5510	9881	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector3D_z_get(void * jarg1) {
5511	9882	float jresult ;
5512		aiVector3D arg1 = (aiVector3D ) 0 ;
	9883	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
5513	9884	float result;
5514	9885
5515		arg1 = (aiVector3D *)jarg1;
	9886	arg1 = (aiVector3t< float > *)jarg1;
5516	9887	result = (float) ((arg1)->z);
5517	9888	jresult = result;
5518	9889	return jresult;

5520	9891
5521	9892
5522	9893	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiVector3D(void * jarg1) {
5523		aiVector3D arg1 = (aiVector3D ) 0 ;
5524
5525		arg1 = (aiVector3D *)jarg1;
	9894	aiVector3t< float > arg1 = (aiVector3t< float > ) 0 ;
	9895
	9896	arg1 = (aiVector3t< float > *)jarg1;
5526	9897	delete arg1;
5527	9898	}
5528	9899
5529	9900
5530		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4D__SWIG_0() {
5531		void * jresult ;
5532		aiColor4D *result = 0 ;
5533
5534		result = (aiColor4D *)new aiColor4D();
5535		jresult = (void *)result;
5536		return jresult;
5537		}
5538
5539
5540		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4D__SWIG_1(float jarg1, float jarg2, float jarg3, float jarg4) {
	9901	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector2D__SWIG_0() {
	9902	void * jresult ;
	9903	aiVector2t< float > *result = 0 ;
	9904
	9905	result = (aiVector2t< float > *)new aiVector2t< float >();
	9906	jresult = (void *)result;
	9907	return jresult;
	9908	}
	9909
	9910
	9911	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector2D__SWIG_1(float jarg1, float jarg2) {
	9912	void * jresult ;
	9913	float arg1 ;
	9914	float arg2 ;
	9915	aiVector2t< float > *result = 0 ;
	9916
	9917	arg1 = (float)jarg1;
	9918	arg2 = (float)jarg2;
	9919	result = (aiVector2t< float > *)new aiVector2t< float >(arg1,arg2);
	9920	jresult = (void *)result;
	9921	return jresult;
	9922	}
	9923
	9924
	9925	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector2D__SWIG_2(float jarg1) {
	9926	void * jresult ;
	9927	float arg1 ;
	9928	aiVector2t< float > *result = 0 ;
	9929
	9930	arg1 = (float)jarg1;
	9931	result = (aiVector2t< float > *)new aiVector2t< float >(arg1);
	9932	jresult = (void *)result;
	9933	return jresult;
	9934	}
	9935
	9936
	9937	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVector2D__SWIG_3(void * jarg1) {
	9938	void * jresult ;
	9939	aiVector2t< float > *arg1 = 0 ;
	9940	aiVector2t< float > *result = 0 ;
	9941
	9942	arg1 = (aiVector2t< float > *)jarg1;
	9943	if (!arg1) {
	9944	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2t< float > const & type is null", 0);
	9945	return 0;
	9946	}
	9947	result = (aiVector2t< float > )new aiVector2t< float >((aiVector2t< float > const &)arg1);
	9948	jresult = (void *)result;
	9949	return jresult;
	9950	}
	9951
	9952
	9953	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector2D_Set(void * jarg1, float jarg2, float jarg3) {
	9954	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	9955	float arg2 ;
	9956	float arg3 ;
	9957
	9958	arg1 = (aiVector2t< float > *)jarg1;
	9959	arg2 = (float)jarg2;
	9960	arg3 = (float)jarg3;
	9961	(arg1)->Set(arg2,arg3);
	9962	}
	9963
	9964
	9965	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector2D_SquareLength(void * jarg1) {
	9966	float jresult ;
	9967	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	9968	float result;
	9969
	9970	arg1 = (aiVector2t< float > *)jarg1;
	9971	result = (float)((aiVector2t< float > const *)arg1)->SquareLength();
	9972	jresult = result;
	9973	return jresult;
	9974	}
	9975
	9976
	9977	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector2D_Length(void * jarg1) {
	9978	float jresult ;
	9979	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	9980	float result;
	9981
	9982	arg1 = (aiVector2t< float > *)jarg1;
	9983	result = (float)((aiVector2t< float > const *)arg1)->Length();
	9984	jresult = result;
	9985	return jresult;
	9986	}
	9987
	9988
	9989	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D_Normalize(void * jarg1) {
	9990	void * jresult ;
	9991	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	9992	aiVector2t< float > *result = 0 ;
	9993
	9994	arg1 = (aiVector2t< float > *)jarg1;
	9995	result = (aiVector2t< float > *) &(arg1)->Normalize();
	9996	jresult = (void *)result;
	9997	return jresult;
	9998	}
	9999
	10000
	10001	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D___addnset__(void * jarg1, void * jarg2) {
	10002	void * jresult ;
	10003	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10004	aiVector2t< float > *arg2 = 0 ;
	10005	aiVector2t< float > *result = 0 ;
	10006
	10007	arg1 = (aiVector2t< float > *)jarg1;
	10008	arg2 = (aiVector2t< float > *)jarg2;
	10009	if (!arg2) {
	10010	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2t< float > const & type is null", 0);
	10011	return 0;
	10012	}
	10013	result = (aiVector2t< float > ) &(arg1)->operator +=((aiVector2t< float > const &)arg2);
	10014	jresult = (void *)result;
	10015	return jresult;
	10016	}
	10017
	10018
	10019	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D___subnset__(void * jarg1, void * jarg2) {
	10020	void * jresult ;
	10021	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10022	aiVector2t< float > *arg2 = 0 ;
	10023	aiVector2t< float > *result = 0 ;
	10024
	10025	arg1 = (aiVector2t< float > *)jarg1;
	10026	arg2 = (aiVector2t< float > *)jarg2;
	10027	if (!arg2) {
	10028	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2t< float > const & type is null", 0);
	10029	return 0;
	10030	}
	10031	result = (aiVector2t< float > ) &(arg1)->operator -=((aiVector2t< float > const &)arg2);
	10032	jresult = (void *)result;
	10033	return jresult;
	10034	}
	10035
	10036
	10037	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D___mulnset__(void * jarg1, float jarg2) {
	10038	void * jresult ;
	10039	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10040	float arg2 ;
	10041	aiVector2t< float > *result = 0 ;
	10042
	10043	arg1 = (aiVector2t< float > *)jarg1;
	10044	arg2 = (float)jarg2;
	10045	result = (aiVector2t< float > ) &(arg1)->operator =(arg2);
	10046	jresult = (void *)result;
	10047	return jresult;
	10048	}
	10049
	10050
	10051	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D___divnset__(void * jarg1, float jarg2) {
	10052	void * jresult ;
	10053	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10054	float arg2 ;
	10055	aiVector2t< float > *result = 0 ;
	10056
	10057	arg1 = (aiVector2t< float > *)jarg1;
	10058	arg2 = (float)jarg2;
	10059	result = (aiVector2t< float > *) &(arg1)->operator /=(arg2);
	10060	jresult = (void *)result;
	10061	return jresult;
	10062	}
	10063
	10064
	10065	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector2D___idx____SWIG_0(void * jarg1, unsigned int jarg2) {
	10066	float jresult ;
	10067	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10068	unsigned int arg2 ;
	10069	float result;
	10070
	10071	arg1 = (aiVector2t< float > *)jarg1;
	10072	arg2 = (unsigned int)jarg2;
	10073	result = (float)((aiVector2t< float > const *)arg1)->operator [](arg2);
	10074	jresult = result;
	10075	return jresult;
	10076	}
	10077
	10078
	10079	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVector2D___equal__(void * jarg1, void * jarg2) {
	10080	unsigned int jresult ;
	10081	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10082	aiVector2t< float > *arg2 = 0 ;
	10083	bool result;
	10084
	10085	arg1 = (aiVector2t< float > *)jarg1;
	10086	arg2 = (aiVector2t< float > *)jarg2;
	10087	if (!arg2) {
	10088	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2t< float > const & type is null", 0);
	10089	return 0;
	10090	}
	10091	result = (bool)((aiVector2t< float > const )arg1)->operator ==((aiVector2t< float > const &)arg2);
	10092	jresult = result;
	10093	return jresult;
	10094	}
	10095
	10096
	10097	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVector2D___nequal__(void * jarg1, void * jarg2) {
	10098	unsigned int jresult ;
	10099	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10100	aiVector2t< float > *arg2 = 0 ;
	10101	bool result;
	10102
	10103	arg1 = (aiVector2t< float > *)jarg1;
	10104	arg2 = (aiVector2t< float > *)jarg2;
	10105	if (!arg2) {
	10106	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2t< float > const & type is null", 0);
	10107	return 0;
	10108	}
	10109	result = (bool)((aiVector2t< float > const )arg1)->operator !=((aiVector2t< float > const &)arg2);
	10110	jresult = result;
	10111	return jresult;
	10112	}
	10113
	10114
	10115	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D___set__(void * jarg1, float jarg2) {
	10116	void * jresult ;
	10117	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10118	float arg2 ;
	10119	aiVector2t< float > *result = 0 ;
	10120
	10121	arg1 = (aiVector2t< float > *)jarg1;
	10122	arg2 = (float)jarg2;
	10123	result = (aiVector2t< float > *) &(arg1)->operator =(arg2);
	10124	jresult = (void *)result;
	10125	return jresult;
	10126	}
	10127
	10128
	10129	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector2D_SymMul(void * jarg1, void * jarg2) {
	10130	void * jresult ;
	10131	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10132	aiVector2t< float > *arg2 = 0 ;
	10133	aiVector2t< float > result;
	10134
	10135	arg1 = (aiVector2t< float > *)jarg1;
	10136	arg2 = (aiVector2t< float > *)jarg2;
	10137	if (!arg2) {
	10138	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2t< float > const & type is null", 0);
	10139	return 0;
	10140	}
	10141	result = (arg1)->SymMul((aiVector2t< float > const &)*arg2);
	10142	jresult = new aiVector2t< float >((const aiVector2t< float > &)result);
	10143	return jresult;
	10144	}
	10145
	10146
	10147	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector2D_x_set(void * jarg1, float jarg2) {
	10148	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10149	float arg2 ;
	10150
	10151	arg1 = (aiVector2t< float > *)jarg1;
	10152	arg2 = (float)jarg2;
	10153	if (arg1) (arg1)->x = arg2;
	10154	}
	10155
	10156
	10157	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector2D_x_get(void * jarg1) {
	10158	float jresult ;
	10159	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10160	float result;
	10161
	10162	arg1 = (aiVector2t< float > *)jarg1;
	10163	result = (float) ((arg1)->x);
	10164	jresult = result;
	10165	return jresult;
	10166	}
	10167
	10168
	10169	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector2D_y_set(void * jarg1, float jarg2) {
	10170	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10171	float arg2 ;
	10172
	10173	arg1 = (aiVector2t< float > *)jarg1;
	10174	arg2 = (float)jarg2;
	10175	if (arg1) (arg1)->y = arg2;
	10176	}
	10177
	10178
	10179	SWIGEXPORT float SWIGSTDCALL CSharp_aiVector2D_y_get(void * jarg1) {
	10180	float jresult ;
	10181	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10182	float result;
	10183
	10184	arg1 = (aiVector2t< float > *)jarg1;
	10185	result = (float) ((arg1)->y);
	10186	jresult = result;
	10187	return jresult;
	10188	}
	10189
	10190
	10191	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiVector2D(void * jarg1) {
	10192	aiVector2t< float > arg1 = (aiVector2t< float > ) 0 ;
	10193
	10194	arg1 = (aiVector2t< float > *)jarg1;
	10195	delete arg1;
	10196	}
	10197
	10198
	10199	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_0() {
	10200	void * jresult ;
	10201	aiQuaterniont< float > *result = 0 ;
	10202
	10203	result = (aiQuaterniont< float > *)new aiQuaterniont< float >();
	10204	jresult = (void *)result;
	10205	return jresult;
	10206	}
	10207
	10208
	10209	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_1(float jarg1, float jarg2, float jarg3, float jarg4) {
5541	10210	void * jresult ;
5542	10211	float arg1 ;
5543	10212	float arg2 ;
5544	10213	float arg3 ;
5545	10214	float arg4 ;
5546		aiColor4D *result = 0 ;
	10215	aiQuaterniont< float > *result = 0 ;
5547	10216
5548	10217	arg1 = (float)jarg1;
5549	10218	arg2 = (float)jarg2;
5550	10219	arg3 = (float)jarg3;
5551	10220	arg4 = (float)jarg4;
5552		result = (aiColor4D *)new aiColor4D(arg1,arg2,arg3,arg4);
5553		jresult = (void *)result;
5554		return jresult;
5555		}
5556
5557
5558		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4D__SWIG_2(float jarg1) {
	10221	result = (aiQuaterniont< float > *)new aiQuaterniont< float >(arg1,arg2,arg3,arg4);
	10222	jresult = (void *)result;
	10223	return jresult;
	10224	}
	10225
	10226
	10227	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_2(void * jarg1) {
	10228	void * jresult ;
	10229	aiMatrix3x3t< float > *arg1 = 0 ;
	10230	aiQuaterniont< float > *result = 0 ;
	10231
	10232	arg1 = (aiMatrix3x3t< float > *)jarg1;
	10233	if (!arg1) {
	10234	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3t< float > const & type is null", 0);
	10235	return 0;
	10236	}
	10237	result = (aiQuaterniont< float > )new aiQuaterniont< float >((aiMatrix3x3t< float > const &)arg1);
	10238	jresult = (void *)result;
	10239	return jresult;
	10240	}
	10241
	10242
	10243	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_3(float jarg1, float jarg2, float jarg3) {
5559	10244	void * jresult ;
5560	10245	float arg1 ;
5561		aiColor4D *result = 0 ;
	10246	float arg2 ;
	10247	float arg3 ;
	10248	aiQuaterniont< float > *result = 0 ;
5562	10249
5563	10250	arg1 = (float)jarg1;
5564		result = (aiColor4D *)new aiColor4D(arg1);
5565		jresult = (void *)result;
5566		return jresult;
5567		}
5568
5569
5570		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4D__SWIG_3(void * jarg1) {
5571		void * jresult ;
5572		aiColor4D *arg1 = 0 ;
5573		aiColor4D *result = 0 ;
5574
5575		arg1 = (aiColor4D *)jarg1;
	10251	arg2 = (float)jarg2;
	10252	arg3 = (float)jarg3;
	10253	result = (aiQuaterniont< float > *)new aiQuaterniont< float >(arg1,arg2,arg3);
	10254	jresult = (void *)result;
	10255	return jresult;
	10256	}
	10257
	10258
	10259	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_4(void * jarg1, float jarg2) {
	10260	void * jresult ;
	10261	aiVector3t< float > arg1 ;
	10262	float arg2 ;
	10263	aiVector3t< float > *argp1 ;
	10264	aiQuaterniont< float > *result = 0 ;
	10265
	10266	argp1 = (aiVector3t< float > *)jarg1;
	10267	if (!argp1) {
	10268	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "Attempt to dereference null aiVector3t< float >", 0);
	10269	return 0;
	10270	}
	10271	arg1 = *argp1;
	10272	arg2 = (float)jarg2;
	10273	result = (aiQuaterniont< float > *)new aiQuaterniont< float >(arg1,arg2);
	10274	jresult = (void *)result;
	10275	return jresult;
	10276	}
	10277
	10278
	10279	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_5(void * jarg1) {
	10280	void * jresult ;
	10281	aiVector3t< float > arg1 ;
	10282	aiVector3t< float > *argp1 ;
	10283	aiQuaterniont< float > *result = 0 ;
	10284
	10285	argp1 = (aiVector3t< float > *)jarg1;
	10286	if (!argp1) {
	10287	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "Attempt to dereference null aiVector3t< float >", 0);
	10288	return 0;
	10289	}
	10290	arg1 = *argp1;
	10291	result = (aiQuaterniont< float > *)new aiQuaterniont< float >(arg1);
	10292	jresult = (void *)result;
	10293	return jresult;
	10294	}
	10295
	10296
	10297	SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuaternion_GetMatrix(void * jarg1) {
	10298	void * jresult ;
	10299	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
	10300	aiMatrix3x3t< float > result;
	10301
	10302	arg1 = (aiQuaterniont< float > *)jarg1;
	10303	result = ((aiQuaterniont< float > const *)arg1)->GetMatrix();
	10304	jresult = new aiMatrix3x3t< float >((const aiMatrix3x3t< float > &)result);
	10305	return jresult;
	10306	}
	10307
	10308
	10309	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuaternion___equal__(void * jarg1, void * jarg2) {
	10310	unsigned int jresult ;
	10311	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
	10312	aiQuaterniont< float > *arg2 = 0 ;
	10313	bool result;
	10314
	10315	arg1 = (aiQuaterniont< float > *)jarg1;
	10316	arg2 = (aiQuaterniont< float > *)jarg2;
	10317	if (!arg2) {
	10318	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaterniont< float > const & type is null", 0);
	10319	return 0;
	10320	}
	10321	result = (bool)((aiQuaterniont< float > const )arg1)->operator ==((aiQuaterniont< float > const &)arg2);
	10322	jresult = result;
	10323	return jresult;
	10324	}
	10325
	10326
	10327	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuaternion___nequal__(void * jarg1, void * jarg2) {
	10328	unsigned int jresult ;
	10329	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
	10330	aiQuaterniont< float > *arg2 = 0 ;
	10331	bool result;
	10332
	10333	arg1 = (aiQuaterniont< float > *)jarg1;
	10334	arg2 = (aiQuaterniont< float > *)jarg2;
	10335	if (!arg2) {
	10336	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaterniont< float > const & type is null", 0);
	10337	return 0;
	10338	}
	10339	result = (bool)((aiQuaterniont< float > const )arg1)->operator !=((aiQuaterniont< float > const &)arg2);
	10340	jresult = result;
	10341	return jresult;
	10342	}
	10343
	10344
	10345	SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuaternion_Normalize(void * jarg1) {
	10346	void * jresult ;
	10347	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
	10348	aiQuaterniont< float > *result = 0 ;
	10349
	10350	arg1 = (aiQuaterniont< float > *)jarg1;
	10351	result = (aiQuaterniont< float > *) &(arg1)->Normalize();
	10352	jresult = (void *)result;
	10353	return jresult;
	10354	}
	10355
	10356
	10357	SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuaternion_Conjugate(void * jarg1) {
	10358	void * jresult ;
	10359	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
	10360	aiQuaterniont< float > *result = 0 ;
	10361
	10362	arg1 = (aiQuaterniont< float > *)jarg1;
	10363	result = (aiQuaterniont< float > *) &(arg1)->Conjugate();
	10364	jresult = (void *)result;
	10365	return jresult;
	10366	}
	10367
	10368
	10369	SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuaternion_Rotate(void * jarg1, void * jarg2) {
	10370	void * jresult ;
	10371	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
	10372	aiVector3t< float > *arg2 = 0 ;
	10373	aiVector3t< float > result;
	10374
	10375	arg1 = (aiQuaterniont< float > *)jarg1;
	10376	arg2 = (aiVector3t< float > *)jarg2;
	10377	if (!arg2) {
	10378	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
	10379	return 0;
	10380	}
	10381	result = (arg1)->Rotate((aiVector3t< float > const &)*arg2);
	10382	jresult = new aiVector3t< float >((const aiVector3t< float > &)result);
	10383	return jresult;
	10384	}
	10385
	10386
	10387	SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuaternion___mul__(void * jarg1, void * jarg2) {
	10388	void * jresult ;
	10389	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
	10390	aiQuaterniont< float > *arg2 = 0 ;
	10391	aiQuaterniont< float > result;
	10392
	10393	arg1 = (aiQuaterniont< float > *)jarg1;
	10394	arg2 = (aiQuaterniont< float > *)jarg2;
	10395	if (!arg2) {
	10396	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaterniont< float > const & type is null", 0);
	10397	return 0;
	10398	}
	10399	result = ((aiQuaterniont< float > const )arg1)->operator ((aiQuaterniont< float > const &)*arg2);
	10400	jresult = new aiQuaterniont< float >((const aiQuaterniont< float > &)result);
	10401	return jresult;
	10402	}
	10403
	10404
	10405	SWIGEXPORT void SWIGSTDCALL CSharp_aiQuaternion_Interpolate(void * jarg1, void * jarg2, void * jarg3, float jarg4) {
	10406	aiQuaterniont< float > *arg1 = 0 ;
	10407	aiQuaterniont< float > *arg2 = 0 ;
	10408	aiQuaterniont< float > *arg3 = 0 ;
	10409	float arg4 ;
	10410
	10411	arg1 = (aiQuaterniont< float > *)jarg1;
5576	10412	if (!arg1) {
5577		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiColor4D const & type is null", 0);
5578		return 0;
	10413	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaterniont< float > & type is null", 0);
	10414	return ;
5579	10415	}
5580		result = (aiColor4D )new aiColor4D((aiColor4D const &)arg1);
5581		jresult = (void *)result;
5582		return jresult;
5583		}
5584
5585
5586		SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4D___addnset__(void * jarg1, void * jarg2) {
5587		void * jresult ;
5588		aiColor4D arg1 = (aiColor4D ) 0 ;
5589		aiColor4D *arg2 = 0 ;
5590		aiColor4D *result = 0 ;
5591
5592		arg1 = (aiColor4D *)jarg1;
5593		arg2 = (aiColor4D *)jarg2;
	10416	arg2 = (aiQuaterniont< float > *)jarg2;
5594	10417	if (!arg2) {
5595		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiColor4D const & type is null", 0);
5596		return 0;
	10418	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaterniont< float > const & type is null", 0);
	10419	return ;
5597	10420	}
5598		result = (aiColor4D ) &(arg1)->operator +=((aiColor4D const &)arg2);
5599		jresult = (void *)result;
5600		return jresult;
5601		}
5602
5603
5604		SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4D___subnset__(void * jarg1, void * jarg2) {
5605		void * jresult ;
5606		aiColor4D arg1 = (aiColor4D ) 0 ;
5607		aiColor4D *arg2 = 0 ;
5608		aiColor4D *result = 0 ;
5609
5610		arg1 = (aiColor4D *)jarg1;
5611		arg2 = (aiColor4D *)jarg2;
5612		if (!arg2) {
5613		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiColor4D const & type is null", 0);
5614		return 0;
	10421	arg3 = (aiQuaterniont< float > *)jarg3;
	10422	if (!arg3) {
	10423	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaterniont< float > const & type is null", 0);
	10424	return ;
5615	10425	}
5616		result = (aiColor4D ) &(arg1)->operator -=((aiColor4D const &)arg2);
5617		jresult = (void *)result;
5618		return jresult;
5619		}
5620
5621
5622		SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4D___mulnset__(void * jarg1, float jarg2) {
5623		void * jresult ;
5624		aiColor4D arg1 = (aiColor4D ) 0 ;
	10426	arg4 = (float)jarg4;
	10427	aiQuaterniont< float >::SWIGTEMPLATEDISAMBIGUATOR Interpolate(arg1,(aiQuaterniont< float > const &)arg2,(aiQuaterniont< float > const &)*arg3,arg4);
	10428	}
	10429
	10430
	10431	SWIGEXPORT void SWIGSTDCALL CSharp_aiQuaternion_w_set(void * jarg1, float jarg2) {
	10432	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
5625	10433	float arg2 ;
5626		aiColor4D *result = 0 ;
5627
5628		arg1 = (aiColor4D *)jarg1;
	10434
	10435	arg1 = (aiQuaterniont< float > *)jarg1;
5629	10436	arg2 = (float)jarg2;
5630		result = (aiColor4D ) &(arg1)->operator =(arg2);
5631		jresult = (void *)result;
5632		return jresult;
5633		}
5634
5635
5636		SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4D___divnset__(void * jarg1, float jarg2) {
5637		void * jresult ;
5638		aiColor4D arg1 = (aiColor4D ) 0 ;
	10437	if (arg1) (arg1)->w = arg2;
	10438	}
	10439
	10440
	10441	SWIGEXPORT float SWIGSTDCALL CSharp_aiQuaternion_w_get(void * jarg1) {
	10442	float jresult ;
	10443	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
	10444	float result;
	10445
	10446	arg1 = (aiQuaterniont< float > *)jarg1;
	10447	result = (float) ((arg1)->w);
	10448	jresult = result;
	10449	return jresult;
	10450	}
	10451
	10452
	10453	SWIGEXPORT void SWIGSTDCALL CSharp_aiQuaternion_x_set(void * jarg1, float jarg2) {
	10454	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
5639	10455	float arg2 ;
5640		aiColor4D *result = 0 ;
5641
5642		arg1 = (aiColor4D *)jarg1;
	10456
	10457	arg1 = (aiQuaterniont< float > *)jarg1;
5643	10458	arg2 = (float)jarg2;
5644		result = (aiColor4D *) &(arg1)->operator /=(arg2);
5645		jresult = (void *)result;
5646		return jresult;
5647		}
5648
5649
5650		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiColor4D___equal__(void * jarg1, void * jarg2) {
5651		unsigned int jresult ;
5652		aiColor4D arg1 = (aiColor4D ) 0 ;
5653		aiColor4D *arg2 = 0 ;
5654		bool result;
5655
5656		arg1 = (aiColor4D *)jarg1;
5657		arg2 = (aiColor4D *)jarg2;
5658		if (!arg2) {
5659		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiColor4D const & type is null", 0);
5660		return 0;
5661		}
5662		result = (bool)((aiColor4D const )arg1)->operator ==((aiColor4D const &)arg2);
5663		jresult = result;
5664		return jresult;
5665		}
5666
5667
5668		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiColor4D___nequal__(void * jarg1, void * jarg2) {
5669		unsigned int jresult ;
5670		aiColor4D arg1 = (aiColor4D ) 0 ;
5671		aiColor4D *arg2 = 0 ;
5672		bool result;
5673
5674		arg1 = (aiColor4D *)jarg1;
5675		arg2 = (aiColor4D *)jarg2;
5676		if (!arg2) {
5677		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiColor4D const & type is null", 0);
5678		return 0;
5679		}
5680		result = (bool)((aiColor4D const )arg1)->operator !=((aiColor4D const &)arg2);
5681		jresult = result;
5682		return jresult;
5683		}
5684
5685
5686		SWIGEXPORT float SWIGSTDCALL CSharp_aiColor4D___idx____SWIG_0(void * jarg1, unsigned int jarg2) {
	10459	if (arg1) (arg1)->x = arg2;
	10460	}
	10461
	10462
	10463	SWIGEXPORT float SWIGSTDCALL CSharp_aiQuaternion_x_get(void * jarg1) {
5687	10464	float jresult ;
5688		aiColor4D arg1 = (aiColor4D ) 0 ;
5689		unsigned int arg2 ;
	10465	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
5690	10466	float result;
5691	10467
5692		arg1 = (aiColor4D *)jarg1;
5693		arg2 = (unsigned int)jarg2;
5694		result = (float)((aiColor4D const *)arg1)->operator [](arg2);
5695		jresult = result;
5696		return jresult;
5697		}
5698
5699
5700		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiColor4D_IsBlack(void * jarg1) {
5701		unsigned int jresult ;
5702		aiColor4D arg1 = (aiColor4D ) 0 ;
5703		bool result;
5704
5705		arg1 = (aiColor4D *)jarg1;
5706		result = (bool)((aiColor4D const *)arg1)->IsBlack();
5707		jresult = result;
5708		return jresult;
5709		}
5710
5711
5712		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4D_r_set(void * jarg1, float jarg2) {
5713		aiColor4D arg1 = (aiColor4D ) 0 ;
	10468	arg1 = (aiQuaterniont< float > *)jarg1;
	10469	result = (float) ((arg1)->x);
	10470	jresult = result;
	10471	return jresult;
	10472	}
	10473
	10474
	10475	SWIGEXPORT void SWIGSTDCALL CSharp_aiQuaternion_y_set(void * jarg1, float jarg2) {
	10476	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
5714	10477	float arg2 ;
5715	10478
5716		arg1 = (aiColor4D *)jarg1;
	10479	arg1 = (aiQuaterniont< float > *)jarg1;
5717	10480	arg2 = (float)jarg2;
5718		if (arg1) (arg1)->r = arg2;
5719		}
5720
5721
5722		SWIGEXPORT float SWIGSTDCALL CSharp_aiColor4D_r_get(void * jarg1) {
	10481	if (arg1) (arg1)->y = arg2;
	10482	}
	10483
	10484
	10485	SWIGEXPORT float SWIGSTDCALL CSharp_aiQuaternion_y_get(void * jarg1) {
5723	10486	float jresult ;
5724		aiColor4D arg1 = (aiColor4D ) 0 ;
	10487	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
5725	10488	float result;
5726	10489
5727		arg1 = (aiColor4D *)jarg1;
5728		result = (float) ((arg1)->r);
5729		jresult = result;
5730		return jresult;
5731		}
5732
5733
5734		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4D_g_set(void * jarg1, float jarg2) {
5735		aiColor4D arg1 = (aiColor4D ) 0 ;
	10490	arg1 = (aiQuaterniont< float > *)jarg1;
	10491	result = (float) ((arg1)->y);
	10492	jresult = result;
	10493	return jresult;
	10494	}
	10495
	10496
	10497	SWIGEXPORT void SWIGSTDCALL CSharp_aiQuaternion_z_set(void * jarg1, float jarg2) {
	10498	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
5736	10499	float arg2 ;
5737	10500
5738		arg1 = (aiColor4D *)jarg1;
	10501	arg1 = (aiQuaterniont< float > *)jarg1;
5739	10502	arg2 = (float)jarg2;
5740		if (arg1) (arg1)->g = arg2;
5741		}
5742
5743
5744		SWIGEXPORT float SWIGSTDCALL CSharp_aiColor4D_g_get(void * jarg1) {
	10503	if (arg1) (arg1)->z = arg2;
	10504	}
	10505
	10506
	10507	SWIGEXPORT float SWIGSTDCALL CSharp_aiQuaternion_z_get(void * jarg1) {
5745	10508	float jresult ;
5746		aiColor4D arg1 = (aiColor4D ) 0 ;
	10509	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
5747	10510	float result;
5748	10511
5749		arg1 = (aiColor4D *)jarg1;
5750		result = (float) ((arg1)->g);
5751		jresult = result;
5752		return jresult;
5753		}
5754
5755
5756		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4D_b_set(void * jarg1, float jarg2) {
5757		aiColor4D arg1 = (aiColor4D ) 0 ;
5758		float arg2 ;
5759
5760		arg1 = (aiColor4D *)jarg1;
5761		arg2 = (float)jarg2;
5762		if (arg1) (arg1)->b = arg2;
5763		}
5764
5765
5766		SWIGEXPORT float SWIGSTDCALL CSharp_aiColor4D_b_get(void * jarg1) {
5767		float jresult ;
5768		aiColor4D arg1 = (aiColor4D ) 0 ;
5769		float result;
5770
5771		arg1 = (aiColor4D *)jarg1;
5772		result = (float) ((arg1)->b);
5773		jresult = result;
5774		return jresult;
5775		}
5776
5777
5778		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4D_a_set(void * jarg1, float jarg2) {
5779		aiColor4D arg1 = (aiColor4D ) 0 ;
5780		float arg2 ;
5781
5782		arg1 = (aiColor4D *)jarg1;
5783		arg2 = (float)jarg2;
5784		if (arg1) (arg1)->a = arg2;
5785		}
5786
5787
5788		SWIGEXPORT float SWIGSTDCALL CSharp_aiColor4D_a_get(void * jarg1) {
5789		float jresult ;
5790		aiColor4D arg1 = (aiColor4D ) 0 ;
5791		float result;
5792
5793		arg1 = (aiColor4D *)jarg1;
5794		result = (float) ((arg1)->a);
5795		jresult = result;
5796		return jresult;
5797		}
5798
5799
5800		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiColor4D(void * jarg1) {
5801		aiColor4D arg1 = (aiColor4D ) 0 ;
5802
5803		arg1 = (aiColor4D *)jarg1;
	10512	arg1 = (aiQuaterniont< float > *)jarg1;
	10513	result = (float) ((arg1)->z);
	10514	jresult = result;
	10515	return jresult;
	10516	}
	10517
	10518
	10519	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiQuaternion(void * jarg1) {
	10520	aiQuaterniont< float > arg1 = (aiQuaterniont< float > ) 0 ;
	10521
	10522	arg1 = (aiQuaterniont< float > *)jarg1;
5804	10523	delete arg1;
5805	10524	}
5806	10525
5807	10526
5808	10527	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMatrix3x3__SWIG_0() {
5809	10528	void * jresult ;
5810		aiMatrix3x3 *result = 0 ;
5811
5812		result = (aiMatrix3x3 *)new aiMatrix3x3();
	10529	aiMatrix3x3t< float > *result = 0 ;
	10530
	10531	result = (aiMatrix3x3t< float > *)new aiMatrix3x3t< float >();
5813	10532	jresult = (void *)result;
5814	10533	return jresult;
5815	10534	}

5826	10545	float arg7 ;
5827	10546	float arg8 ;
5828	10547	float arg9 ;
5829		aiMatrix3x3 *result = 0 ;
	10548	aiMatrix3x3t< float > *result = 0 ;
5830	10549
5831	10550	arg1 = (float)jarg1;
5832	10551	arg2 = (float)jarg2;

5837	10556	arg7 = (float)jarg7;
5838	10557	arg8 = (float)jarg8;
5839	10558	arg9 = (float)jarg9;
5840		result = (aiMatrix3x3 *)new aiMatrix3x3(arg1,arg2,arg3,arg4,arg5,arg6,arg7,arg8,arg9);
5841		jresult = (void *)result;
	10559	result = (aiMatrix3x3t< float > *)new aiMatrix3x3t< float >(arg1,arg2,arg3,arg4,arg5,arg6,arg7,arg8,arg9);
	10560	jresult = (void *)result;
	10561	return jresult;
	10562	}
	10563
	10564
	10565	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix3x3___mulnset__(void * jarg1, void * jarg2) {
	10566	void * jresult ;
	10567	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
	10568	aiMatrix3x3t< float > *arg2 = 0 ;
	10569	aiMatrix3x3t< float > *result = 0 ;
	10570
	10571	arg1 = (aiMatrix3x3t< float > *)jarg1;
	10572	arg2 = (aiMatrix3x3t< float > *)jarg2;
	10573	if (!arg2) {
	10574	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3t< float > const & type is null", 0);
	10575	return 0;
	10576	}
	10577	result = (aiMatrix3x3t< float > ) &(arg1)->operator =((aiMatrix3x3t< float > const &)*arg2);
	10578	jresult = (void *)result;
	10579	return jresult;
	10580	}
	10581
	10582
	10583	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix3x3___mul__(void * jarg1, void * jarg2) {
	10584	void * jresult ;
	10585	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
	10586	aiMatrix3x3t< float > *arg2 = 0 ;
	10587	aiMatrix3x3t< float > result;
	10588
	10589	arg1 = (aiMatrix3x3t< float > *)jarg1;
	10590	arg2 = (aiMatrix3x3t< float > *)jarg2;
	10591	if (!arg2) {
	10592	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3t< float > const & type is null", 0);
	10593	return 0;
	10594	}
	10595	result = ((aiMatrix3x3t< float > const )arg1)->operator ((aiMatrix3x3t< float > const &)*arg2);
	10596	jresult = new aiMatrix3x3t< float >((const aiMatrix3x3t< float > &)result);
	10597	return jresult;
	10598	}
	10599
	10600
	10601	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix3x3___idx____SWIG_0(void * jarg1, unsigned int jarg2) {
	10602	void * jresult ;
	10603	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
	10604	unsigned int arg2 ;
	10605	float *result = 0 ;
	10606
	10607	arg1 = (aiMatrix3x3t< float > *)jarg1;
	10608	arg2 = (unsigned int)jarg2;
	10609	result = (float *)(arg1)->operator [](arg2);
	10610	jresult = (void *)result;
	10611	return jresult;
	10612	}
	10613
	10614
	10615	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMatrix3x3___equal__(void * jarg1, void * jarg2) {
	10616	unsigned int jresult ;
	10617	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
	10618	aiMatrix4x4t< float > arg2 ;
	10619	aiMatrix4x4t< float > const *argp2 ;
	10620	bool result;
	10621
	10622	arg1 = (aiMatrix3x3t< float > *)jarg1;
	10623	argp2 = (aiMatrix4x4t< float > *)jarg2;
	10624	if (!argp2) {
	10625	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "Attempt to dereference null aiMatrix4x4t< float > const", 0);
	10626	return 0;
	10627	}
	10628	arg2 = *argp2;
	10629	result = (bool)((aiMatrix3x3t< float > const *)arg1)->operator ==(arg2);
	10630	jresult = result;
	10631	return jresult;
	10632	}
	10633
	10634
	10635	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMatrix3x3___nequal__(void * jarg1, void * jarg2) {
	10636	unsigned int jresult ;
	10637	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
	10638	aiMatrix4x4t< float > arg2 ;
	10639	aiMatrix4x4t< float > const *argp2 ;
	10640	bool result;
	10641
	10642	arg1 = (aiMatrix3x3t< float > *)jarg1;
	10643	argp2 = (aiMatrix4x4t< float > *)jarg2;
	10644	if (!argp2) {
	10645	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "Attempt to dereference null aiMatrix4x4t< float > const", 0);
	10646	return 0;
	10647	}
	10648	arg2 = *argp2;
	10649	result = (bool)((aiMatrix3x3t< float > const *)arg1)->operator !=(arg2);
	10650	jresult = result;
5842	10651	return jresult;
5843	10652	}
5844	10653
5845	10654
5846	10655	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMatrix3x3__SWIG_2(void * jarg1) {
5847	10656	void * jresult ;
5848		aiMatrix4x4 *arg1 = 0 ;
5849		aiMatrix3x3 *result = 0 ;
5850
5851		arg1 = (aiMatrix4x4 *)jarg1;
	10657	aiMatrix4x4t< float > *arg1 = 0 ;
	10658	aiMatrix3x3t< float > *result = 0 ;
	10659
	10660	arg1 = (aiMatrix4x4t< float > *)jarg1;
5852	10661	if (!arg1) {
5853		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 const & type is null", 0);
	10662	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > const & type is null", 0);
5854	10663	return 0;
5855	10664	}
5856		result = (aiMatrix3x3 )new aiMatrix3x3((aiMatrix4x4 const &)arg1);
	10665	result = (aiMatrix3x3t< float > )new aiMatrix3x3t< float >((aiMatrix4x4t< float > const &)arg1);
5857	10666	jresult = (void *)result;
5858	10667	return jresult;
5859	10668	}

5861	10670
5862	10671	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix3x3_Transpose(void * jarg1) {
5863	10672	void * jresult ;
5864		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
5865		aiMatrix3x3 *result = 0 ;
5866
5867		arg1 = (aiMatrix3x3 *)jarg1;
5868		result = (aiMatrix3x3 *) &(arg1)->Transpose();
	10673	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
	10674	aiMatrix3x3t< float > *result = 0 ;
	10675
	10676	arg1 = (aiMatrix3x3t< float > *)jarg1;
	10677	result = (aiMatrix3x3t< float > *) &(arg1)->Transpose();
5869	10678	jresult = (void *)result;
5870	10679	return jresult;
5871	10680	}

5873	10682
5874	10683	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix3x3_Inverse(void * jarg1) {
5875	10684	void * jresult ;
5876		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
5877		aiMatrix3x3 *result = 0 ;
5878
5879		arg1 = (aiMatrix3x3 *)jarg1;
5880		result = (aiMatrix3x3 *) &(arg1)->Inverse();
	10685	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
	10686	aiMatrix3x3t< float > *result = 0 ;
	10687
	10688	arg1 = (aiMatrix3x3t< float > *)jarg1;
	10689	result = (aiMatrix3x3t< float > *) &(arg1)->Inverse();
5881	10690	jresult = (void *)result;
5882	10691	return jresult;
5883	10692	}

5885	10694
5886	10695	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix3x3_Determinant(void * jarg1) {
5887	10696	float jresult ;
5888		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10697	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
5889	10698	float result;
5890	10699
5891		arg1 = (aiMatrix3x3 *)jarg1;
5892		result = (float)((aiMatrix3x3 const *)arg1)->Determinant();
	10700	arg1 = (aiMatrix3x3t< float > *)jarg1;
	10701	result = (float)((aiMatrix3x3t< float > const *)arg1)->Determinant();
5893	10702	jresult = result;
5894	10703	return jresult;
5895	10704	}

5898	10707	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix3x3_RotationZ(float jarg1, void * jarg2) {
5899	10708	void * jresult ;
5900	10709	float arg1 ;
5901		aiMatrix3x3 *arg2 = 0 ;
5902		aiMatrix3x3 *result = 0 ;
	10710	aiMatrix3x3t< float > *arg2 = 0 ;
	10711	aiMatrix3x3t< float > *result = 0 ;
5903	10712
5904	10713	arg1 = (float)jarg1;
5905		arg2 = (aiMatrix3x3 *)jarg2;
	10714	arg2 = (aiMatrix3x3t< float > *)jarg2;
5906	10715	if (!arg2) {
5907		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3 & type is null", 0);
	10716	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3t< float > & type is null", 0);
5908	10717	return 0;
5909	10718	}
5910		result = (aiMatrix3x3 ) &aiMatrix3x3::RotationZ(arg1,arg2);
	10719	result = (aiMatrix3x3t< float > ) &aiMatrix3x3t< float >::SWIGTEMPLATEDISAMBIGUATOR RotationZ(arg1,arg2);
5911	10720	jresult = (void *)result;
5912	10721	return jresult;
5913	10722	}

5916	10725	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix3x3_Rotation(float jarg1, void * jarg2, void * jarg3) {
5917	10726	void * jresult ;
5918	10727	float arg1 ;
5919		aiVector3D *arg2 = 0 ;
5920		aiMatrix3x3 *arg3 = 0 ;
5921		aiMatrix3x3 *result = 0 ;
	10728	aiVector3t< float > *arg2 = 0 ;
	10729	aiMatrix3x3t< float > *arg3 = 0 ;
	10730	aiMatrix3x3t< float > *result = 0 ;
5922	10731
5923	10732	arg1 = (float)jarg1;
5924		arg2 = (aiVector3D *)jarg2;
	10733	arg2 = (aiVector3t< float > *)jarg2;
5925	10734	if (!arg2) {
5926		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	10735	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
5927	10736	return 0;
5928	10737	}
5929		arg3 = (aiMatrix3x3 *)jarg3;
	10738	arg3 = (aiMatrix3x3t< float > *)jarg3;
5930	10739	if (!arg3) {
5931		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3 & type is null", 0);
	10740	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3t< float > & type is null", 0);
5932	10741	return 0;
5933	10742	}
5934		result = (aiMatrix3x3 ) &aiMatrix3x3::Rotation(arg1,(aiVector3D const &)arg2,*arg3);
	10743	result = (aiMatrix3x3t< float > ) &aiMatrix3x3t< float >::SWIGTEMPLATEDISAMBIGUATOR Rotation(arg1,(aiVector3t< float > const &)arg2,*arg3);
5935	10744	jresult = (void *)result;
5936	10745	return jresult;
5937	10746	}

5939	10748
5940	10749	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix3x3_Translation(void * jarg1, void * jarg2) {
5941	10750	void * jresult ;
5942		aiVector2D *arg1 = 0 ;
5943		aiMatrix3x3 *arg2 = 0 ;
5944		aiMatrix3x3 *result = 0 ;
5945
5946		arg1 = (aiVector2D *)jarg1;
	10751	aiVector2t< float > *arg1 = 0 ;
	10752	aiMatrix3x3t< float > *arg2 = 0 ;
	10753	aiMatrix3x3t< float > *result = 0 ;
	10754
	10755	arg1 = (aiVector2t< float > *)jarg1;
5947	10756	if (!arg1) {
5948		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2D const & type is null", 0);
	10757	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector2t< float > const & type is null", 0);
5949	10758	return 0;
5950	10759	}
5951		arg2 = (aiMatrix3x3 *)jarg2;
	10760	arg2 = (aiMatrix3x3t< float > *)jarg2;
5952	10761	if (!arg2) {
5953		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3 & type is null", 0);
	10762	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3t< float > & type is null", 0);
5954	10763	return 0;
5955	10764	}
5956		result = (aiMatrix3x3 ) &aiMatrix3x3::Translation((aiVector2D const &)arg1,*arg2);
	10765	result = (aiMatrix3x3t< float > ) &aiMatrix3x3t< float >::SWIGTEMPLATEDISAMBIGUATOR Translation((aiVector2t< float > const &)arg1,*arg2);
5957	10766	jresult = (void *)result;
5958	10767	return jresult;
5959	10768	}

5961	10770
5962	10771	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix3x3_FromToMatrix(void * jarg1, void * jarg2, void * jarg3) {
5963	10772	void * jresult ;
5964		aiVector3D *arg1 = 0 ;
5965		aiVector3D *arg2 = 0 ;
5966		aiMatrix3x3 *arg3 = 0 ;
5967		aiMatrix3x3 *result = 0 ;
5968
5969		arg1 = (aiVector3D *)jarg1;
	10773	aiVector3t< float > *arg1 = 0 ;
	10774	aiVector3t< float > *arg2 = 0 ;
	10775	aiMatrix3x3t< float > *arg3 = 0 ;
	10776	aiMatrix3x3t< float > *result = 0 ;
	10777
	10778	arg1 = (aiVector3t< float > *)jarg1;
5970	10779	if (!arg1) {
5971		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	10780	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
5972	10781	return 0;
5973	10782	}
5974		arg2 = (aiVector3D *)jarg2;
	10783	arg2 = (aiVector3t< float > *)jarg2;
5975	10784	if (!arg2) {
5976		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	10785	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
5977	10786	return 0;
5978	10787	}
5979		arg3 = (aiMatrix3x3 *)jarg3;
	10788	arg3 = (aiMatrix3x3t< float > *)jarg3;
5980	10789	if (!arg3) {
5981		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3 & type is null", 0);
	10790	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3t< float > & type is null", 0);
5982	10791	return 0;
5983	10792	}
5984		result = (aiMatrix3x3 ) &aiMatrix3x3::FromToMatrix((aiVector3D const &)arg1,(aiVector3D const &)arg2,arg3);
	10793	result = (aiMatrix3x3t< float > ) &aiMatrix3x3t< float >::SWIGTEMPLATEDISAMBIGUATOR FromToMatrix((aiVector3t< float > const &)arg1,(aiVector3t< float > const &)arg2,arg3);
5985	10794	jresult = (void *)result;
5986	10795	return jresult;
5987	10796	}
5988	10797
5989	10798
5990	10799	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix3x3_a1_set(void * jarg1, float jarg2) {
5991		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10800	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
5992	10801	float arg2 ;
5993	10802
5994		arg1 = (aiMatrix3x3 *)jarg1;
	10803	arg1 = (aiMatrix3x3t< float > *)jarg1;
5995	10804	arg2 = (float)jarg2;
5996	10805	if (arg1) (arg1)->a1 = arg2;
5997	10806	}

5999	10808
6000	10809	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix3x3_a1_get(void * jarg1) {
6001	10810	float jresult ;
6002		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10811	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6003	10812	float result;
6004	10813
6005		arg1 = (aiMatrix3x3 *)jarg1;
	10814	arg1 = (aiMatrix3x3t< float > *)jarg1;
6006	10815	result = (float) ((arg1)->a1);
6007	10816	jresult = result;
6008	10817	return jresult;

6010	10819
6011	10820
6012	10821	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix3x3_a2_set(void * jarg1, float jarg2) {
6013		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10822	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6014	10823	float arg2 ;
6015	10824
6016		arg1 = (aiMatrix3x3 *)jarg1;
	10825	arg1 = (aiMatrix3x3t< float > *)jarg1;
6017	10826	arg2 = (float)jarg2;
6018	10827	if (arg1) (arg1)->a2 = arg2;
6019	10828	}

6021	10830
6022	10831	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix3x3_a2_get(void * jarg1) {
6023	10832	float jresult ;
6024		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10833	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6025	10834	float result;
6026	10835
6027		arg1 = (aiMatrix3x3 *)jarg1;
	10836	arg1 = (aiMatrix3x3t< float > *)jarg1;
6028	10837	result = (float) ((arg1)->a2);
6029	10838	jresult = result;
6030	10839	return jresult;

6032	10841
6033	10842
6034	10843	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix3x3_a3_set(void * jarg1, float jarg2) {
6035		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10844	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6036	10845	float arg2 ;
6037	10846
6038		arg1 = (aiMatrix3x3 *)jarg1;
	10847	arg1 = (aiMatrix3x3t< float > *)jarg1;
6039	10848	arg2 = (float)jarg2;
6040	10849	if (arg1) (arg1)->a3 = arg2;
6041	10850	}

6043	10852
6044	10853	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix3x3_a3_get(void * jarg1) {
6045	10854	float jresult ;
6046		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10855	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6047	10856	float result;
6048	10857
6049		arg1 = (aiMatrix3x3 *)jarg1;
	10858	arg1 = (aiMatrix3x3t< float > *)jarg1;
6050	10859	result = (float) ((arg1)->a3);
6051	10860	jresult = result;
6052	10861	return jresult;

6054	10863
6055	10864
6056	10865	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix3x3_b1_set(void * jarg1, float jarg2) {
6057		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10866	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6058	10867	float arg2 ;
6059	10868
6060		arg1 = (aiMatrix3x3 *)jarg1;
	10869	arg1 = (aiMatrix3x3t< float > *)jarg1;
6061	10870	arg2 = (float)jarg2;
6062	10871	if (arg1) (arg1)->b1 = arg2;
6063	10872	}

6065	10874
6066	10875	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix3x3_b1_get(void * jarg1) {
6067	10876	float jresult ;
6068		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10877	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6069	10878	float result;
6070	10879
6071		arg1 = (aiMatrix3x3 *)jarg1;
	10880	arg1 = (aiMatrix3x3t< float > *)jarg1;
6072	10881	result = (float) ((arg1)->b1);
6073	10882	jresult = result;
6074	10883	return jresult;

6076	10885
6077	10886
6078	10887	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix3x3_b2_set(void * jarg1, float jarg2) {
6079		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10888	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6080	10889	float arg2 ;
6081	10890
6082		arg1 = (aiMatrix3x3 *)jarg1;
	10891	arg1 = (aiMatrix3x3t< float > *)jarg1;
6083	10892	arg2 = (float)jarg2;
6084	10893	if (arg1) (arg1)->b2 = arg2;
6085	10894	}

6087	10896
6088	10897	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix3x3_b2_get(void * jarg1) {
6089	10898	float jresult ;
6090		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10899	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6091	10900	float result;
6092	10901
6093		arg1 = (aiMatrix3x3 *)jarg1;
	10902	arg1 = (aiMatrix3x3t< float > *)jarg1;
6094	10903	result = (float) ((arg1)->b2);
6095	10904	jresult = result;
6096	10905	return jresult;

6098	10907
6099	10908
6100	10909	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix3x3_b3_set(void * jarg1, float jarg2) {
6101		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10910	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6102	10911	float arg2 ;
6103	10912
6104		arg1 = (aiMatrix3x3 *)jarg1;
	10913	arg1 = (aiMatrix3x3t< float > *)jarg1;
6105	10914	arg2 = (float)jarg2;
6106	10915	if (arg1) (arg1)->b3 = arg2;
6107	10916	}

6109	10918
6110	10919	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix3x3_b3_get(void * jarg1) {
6111	10920	float jresult ;
6112		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10921	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6113	10922	float result;
6114	10923
6115		arg1 = (aiMatrix3x3 *)jarg1;
	10924	arg1 = (aiMatrix3x3t< float > *)jarg1;
6116	10925	result = (float) ((arg1)->b3);
6117	10926	jresult = result;
6118	10927	return jresult;

6120	10929
6121	10930
6122	10931	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix3x3_c1_set(void * jarg1, float jarg2) {
6123		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10932	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6124	10933	float arg2 ;
6125	10934
6126		arg1 = (aiMatrix3x3 *)jarg1;
	10935	arg1 = (aiMatrix3x3t< float > *)jarg1;
6127	10936	arg2 = (float)jarg2;
6128	10937	if (arg1) (arg1)->c1 = arg2;
6129	10938	}

6131	10940
6132	10941	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix3x3_c1_get(void * jarg1) {
6133	10942	float jresult ;
6134		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10943	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6135	10944	float result;
6136	10945
6137		arg1 = (aiMatrix3x3 *)jarg1;
	10946	arg1 = (aiMatrix3x3t< float > *)jarg1;
6138	10947	result = (float) ((arg1)->c1);
6139	10948	jresult = result;
6140	10949	return jresult;

6142	10951
6143	10952
6144	10953	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix3x3_c2_set(void * jarg1, float jarg2) {
6145		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10954	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6146	10955	float arg2 ;
6147	10956
6148		arg1 = (aiMatrix3x3 *)jarg1;
	10957	arg1 = (aiMatrix3x3t< float > *)jarg1;
6149	10958	arg2 = (float)jarg2;
6150	10959	if (arg1) (arg1)->c2 = arg2;
6151	10960	}

6153	10962
6154	10963	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix3x3_c2_get(void * jarg1) {
6155	10964	float jresult ;
6156		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10965	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6157	10966	float result;
6158	10967
6159		arg1 = (aiMatrix3x3 *)jarg1;
	10968	arg1 = (aiMatrix3x3t< float > *)jarg1;
6160	10969	result = (float) ((arg1)->c2);
6161	10970	jresult = result;
6162	10971	return jresult;

6164	10973
6165	10974
6166	10975	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix3x3_c3_set(void * jarg1, float jarg2) {
6167		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10976	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6168	10977	float arg2 ;
6169	10978
6170		arg1 = (aiMatrix3x3 *)jarg1;
	10979	arg1 = (aiMatrix3x3t< float > *)jarg1;
6171	10980	arg2 = (float)jarg2;
6172	10981	if (arg1) (arg1)->c3 = arg2;
6173	10982	}

6175	10984
6176	10985	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix3x3_c3_get(void * jarg1) {
6177	10986	float jresult ;
6178		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
	10987	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
6179	10988	float result;
6180	10989
6181		arg1 = (aiMatrix3x3 *)jarg1;
	10990	arg1 = (aiMatrix3x3t< float > *)jarg1;
6182	10991	result = (float) ((arg1)->c3);
6183	10992	jresult = result;
6184	10993	return jresult;

6186	10995
6187	10996
6188	10997	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMatrix3x3(void * jarg1) {
6189		aiMatrix3x3 arg1 = (aiMatrix3x3 ) 0 ;
6190
6191		arg1 = (aiMatrix3x3 *)jarg1;
	10998	aiMatrix3x3t< float > arg1 = (aiMatrix3x3t< float > ) 0 ;
	10999
	11000	arg1 = (aiMatrix3x3t< float > *)jarg1;
6192	11001	delete arg1;
6193	11002	}
6194	11003
6195	11004
6196	11005	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMatrix4x4__SWIG_0() {
6197	11006	void * jresult ;
6198		aiMatrix4x4 *result = 0 ;
6199
6200		result = (aiMatrix4x4 *)new aiMatrix4x4();
	11007	aiMatrix4x4t< float > *result = 0 ;
	11008
	11009	result = (aiMatrix4x4t< float > *)new aiMatrix4x4t< float >();
6201	11010	jresult = (void *)result;
6202	11011	return jresult;
6203	11012	}

6221	11030	float arg14 ;
6222	11031	float arg15 ;
6223	11032	float arg16 ;
6224		aiMatrix4x4 *result = 0 ;
	11033	aiMatrix4x4t< float > *result = 0 ;
6225	11034
6226	11035	arg1 = (float)jarg1;
6227	11036	arg2 = (float)jarg2;

6239	11048	arg14 = (float)jarg14;
6240	11049	arg15 = (float)jarg15;
6241	11050	arg16 = (float)jarg16;
6242		result = (aiMatrix4x4 *)new aiMatrix4x4(arg1,arg2,arg3,arg4,arg5,arg6,arg7,arg8,arg9,arg10,arg11,arg12,arg13,arg14,arg15,arg16);
	11051	result = (aiMatrix4x4t< float > *)new aiMatrix4x4t< float >(arg1,arg2,arg3,arg4,arg5,arg6,arg7,arg8,arg9,arg10,arg11,arg12,arg13,arg14,arg15,arg16);
6243	11052	jresult = (void *)result;
6244	11053	return jresult;
6245	11054	}

6247	11056
6248	11057	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMatrix4x4__SWIG_2(void * jarg1) {
6249	11058	void * jresult ;
6250		aiMatrix3x3 *arg1 = 0 ;
6251		aiMatrix4x4 *result = 0 ;
6252
6253		arg1 = (aiMatrix3x3 *)jarg1;
	11059	aiMatrix3x3t< float > *arg1 = 0 ;
	11060	aiMatrix4x4t< float > *result = 0 ;
	11061
	11062	arg1 = (aiMatrix3x3t< float > *)jarg1;
6254	11063	if (!arg1) {
6255		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3 const & type is null", 0);
	11064	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3t< float > const & type is null", 0);
6256	11065	return 0;
6257	11066	}
6258		result = (aiMatrix4x4 )new aiMatrix4x4((aiMatrix3x3 const &)arg1);
6259		jresult = (void *)result;
	11067	result = (aiMatrix4x4t< float > )new aiMatrix4x4t< float >((aiMatrix3x3t< float > const &)arg1);
	11068	jresult = (void *)result;
	11069	return jresult;
	11070	}
	11071
	11072
	11073	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4___idx____SWIG_0(void * jarg1, unsigned int jarg2) {
	11074	void * jresult ;
	11075	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11076	unsigned int arg2 ;
	11077	float *result = 0 ;
	11078
	11079	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11080	arg2 = (unsigned int)jarg2;
	11081	result = (float *)(arg1)->operator [](arg2);
	11082	jresult = (void *)result;
	11083	return jresult;
	11084	}
	11085
	11086
	11087	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMatrix4x4___equal__(void * jarg1, void * jarg2) {
	11088	unsigned int jresult ;
	11089	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11090	aiMatrix4x4t< float > arg2 ;
	11091	aiMatrix4x4t< float > const *argp2 ;
	11092	bool result;
	11093
	11094	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11095	argp2 = (aiMatrix4x4t< float > *)jarg2;
	11096	if (!argp2) {
	11097	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "Attempt to dereference null aiMatrix4x4t< float > const", 0);
	11098	return 0;
	11099	}
	11100	arg2 = *argp2;
	11101	result = (bool)((aiMatrix4x4t< float > const *)arg1)->operator ==(arg2);
	11102	jresult = result;
	11103	return jresult;
	11104	}
	11105
	11106
	11107	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMatrix4x4___nequal__(void * jarg1, void * jarg2) {
	11108	unsigned int jresult ;
	11109	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11110	aiMatrix4x4t< float > arg2 ;
	11111	aiMatrix4x4t< float > const *argp2 ;
	11112	bool result;
	11113
	11114	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11115	argp2 = (aiMatrix4x4t< float > *)jarg2;
	11116	if (!argp2) {
	11117	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "Attempt to dereference null aiMatrix4x4t< float > const", 0);
	11118	return 0;
	11119	}
	11120	arg2 = *argp2;
	11121	result = (bool)((aiMatrix4x4t< float > const *)arg1)->operator !=(arg2);
	11122	jresult = result;
	11123	return jresult;
	11124	}
	11125
	11126
	11127	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4___mulnset__(void * jarg1, void * jarg2) {
	11128	void * jresult ;
	11129	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11130	aiMatrix4x4t< float > *arg2 = 0 ;
	11131	aiMatrix4x4t< float > *result = 0 ;
	11132
	11133	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11134	arg2 = (aiMatrix4x4t< float > *)jarg2;
	11135	if (!arg2) {
	11136	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > const & type is null", 0);
	11137	return 0;
	11138	}
	11139	result = (aiMatrix4x4t< float > ) &(arg1)->operator =((aiMatrix4x4t< float > const &)*arg2);
	11140	jresult = (void *)result;
	11141	return jresult;
	11142	}
	11143
	11144
	11145	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4___mul__(void * jarg1, void * jarg2) {
	11146	void * jresult ;
	11147	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11148	aiMatrix4x4t< float > *arg2 = 0 ;
	11149	aiMatrix4x4t< float > result;
	11150
	11151	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11152	arg2 = (aiMatrix4x4t< float > *)jarg2;
	11153	if (!arg2) {
	11154	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > const & type is null", 0);
	11155	return 0;
	11156	}
	11157	result = ((aiMatrix4x4t< float > const )arg1)->operator ((aiMatrix4x4t< float > const &)*arg2);
	11158	jresult = new aiMatrix4x4t< float >((const aiMatrix4x4t< float > &)result);
6260	11159	return jresult;
6261	11160	}
6262	11161
6263	11162
6264	11163	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_Transpose(void * jarg1) {
6265	11164	void * jresult ;
6266		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
6267		aiMatrix4x4 *result = 0 ;
6268
6269		arg1 = (aiMatrix4x4 *)jarg1;
6270		result = (aiMatrix4x4 *) &(arg1)->Transpose();
	11165	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11166	aiMatrix4x4t< float > *result = 0 ;
	11167
	11168	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11169	result = (aiMatrix4x4t< float > *) &(arg1)->Transpose();
6271	11170	jresult = (void *)result;
6272	11171	return jresult;
6273	11172	}

6275	11174
6276	11175	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_Inverse(void * jarg1) {
6277	11176	void * jresult ;
6278		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
6279		aiMatrix4x4 *result = 0 ;
6280
6281		arg1 = (aiMatrix4x4 *)jarg1;
6282		result = (aiMatrix4x4 *) &(arg1)->Inverse();
	11177	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11178	aiMatrix4x4t< float > *result = 0 ;
	11179
	11180	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11181	result = (aiMatrix4x4t< float > *) &(arg1)->Inverse();
6283	11182	jresult = (void *)result;
6284	11183	return jresult;
6285	11184	}

6287	11186
6288	11187	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_Determinant(void * jarg1) {
6289	11188	float jresult ;
6290		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11189	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6291	11190	float result;
6292	11191
6293		arg1 = (aiMatrix4x4 *)jarg1;
6294		result = (float)((aiMatrix4x4 const *)arg1)->Determinant();
	11192	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11193	result = (float)((aiMatrix4x4t< float > const *)arg1)->Determinant();
6295	11194	jresult = result;
6296	11195	return jresult;
6297	11196	}

6299	11198
6300	11199	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMatrix4x4_IsIdentity(void * jarg1) {
6301	11200	unsigned int jresult ;
6302		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11201	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6303	11202	bool result;
6304	11203
6305		arg1 = (aiMatrix4x4 *)jarg1;
6306		result = (bool)((aiMatrix4x4 const *)arg1)->IsIdentity();
	11204	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11205	result = (bool)((aiMatrix4x4t< float > const *)arg1)->IsIdentity();
6307	11206	jresult = result;
6308	11207	return jresult;
6309	11208	}
6310	11209
6311	11210
6312	11211	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_Decompose(void * jarg1, void * jarg2, void * jarg3, void * jarg4) {
6313		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
6314		aiVector3D *arg2 = 0 ;
6315		aiQuaternion *arg3 = 0 ;
6316		aiVector3D *arg4 = 0 ;
6317
6318		arg1 = (aiMatrix4x4 *)jarg1;
6319		arg2 = (aiVector3D *)jarg2;
	11212	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11213	aiVector3t< float > *arg2 = 0 ;
	11214	aiQuaterniont< float > *arg3 = 0 ;
	11215	aiVector3t< float > *arg4 = 0 ;
	11216
	11217	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11218	arg2 = (aiVector3t< float > *)jarg2;
6320	11219	if (!arg2) {
6321		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D & type is null", 0);
	11220	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > & type is null", 0);
6322	11221	return ;
6323	11222	}
6324		arg3 = (aiQuaternion *)jarg3;
	11223	arg3 = (aiQuaterniont< float > *)jarg3;
6325	11224	if (!arg3) {
6326		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaternion & type is null", 0);
	11225	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaterniont< float > & type is null", 0);
6327	11226	return ;
6328	11227	}
6329		arg4 = (aiVector3D *)jarg4;
	11228	arg4 = (aiVector3t< float > *)jarg4;
6330	11229	if (!arg4) {
6331		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D & type is null", 0);
	11230	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > & type is null", 0);
6332	11231	return ;
6333	11232	}
6334		((aiMatrix4x4 const )arg1)->Decompose(arg2,arg3,arg4);
	11233	((aiMatrix4x4t< float > const )arg1)->Decompose(arg2,arg3,arg4);
6335	11234	}
6336	11235
6337	11236
6338	11237	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_DecomposeNoScaling(void * jarg1, void * jarg2, void * jarg3) {
6339		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
6340		aiQuaternion *arg2 = 0 ;
6341		aiVector3D *arg3 = 0 ;
6342
6343		arg1 = (aiMatrix4x4 *)jarg1;
6344		arg2 = (aiQuaternion *)jarg2;
	11238	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11239	aiQuaterniont< float > *arg2 = 0 ;
	11240	aiVector3t< float > *arg3 = 0 ;
	11241
	11242	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11243	arg2 = (aiQuaterniont< float > *)jarg2;
6345	11244	if (!arg2) {
6346		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaternion & type is null", 0);
	11245	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaterniont< float > & type is null", 0);
6347	11246	return ;
6348	11247	}
6349		arg3 = (aiVector3D *)jarg3;
	11248	arg3 = (aiVector3t< float > *)jarg3;
6350	11249	if (!arg3) {
6351		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D & type is null", 0);
	11250	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > & type is null", 0);
6352	11251	return ;
6353	11252	}
6354		((aiMatrix4x4 const )arg1)->DecomposeNoScaling(arg2,*arg3);
	11253	((aiMatrix4x4t< float > const )arg1)->DecomposeNoScaling(arg2,*arg3);
6355	11254	}
6356	11255
6357	11256
6358	11257	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_FromEulerAnglesXYZ__SWIG_0(void * jarg1, float jarg2, float jarg3, float jarg4) {
6359	11258	void * jresult ;
6360		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11259	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6361	11260	float arg2 ;
6362	11261	float arg3 ;
6363	11262	float arg4 ;
6364		aiMatrix4x4 *result = 0 ;
6365
6366		arg1 = (aiMatrix4x4 *)jarg1;
	11263	aiMatrix4x4t< float > *result = 0 ;
	11264
	11265	arg1 = (aiMatrix4x4t< float > *)jarg1;
6367	11266	arg2 = (float)jarg2;
6368	11267	arg3 = (float)jarg3;
6369	11268	arg4 = (float)jarg4;
6370		result = (aiMatrix4x4 *) &(arg1)->FromEulerAnglesXYZ(arg2,arg3,arg4);
	11269	result = (aiMatrix4x4t< float > *) &(arg1)->FromEulerAnglesXYZ(arg2,arg3,arg4);
6371	11270	jresult = (void *)result;
6372	11271	return jresult;
6373	11272	}

6375	11274
6376	11275	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_FromEulerAnglesXYZ__SWIG_1(void * jarg1, void * jarg2) {
6377	11276	void * jresult ;
6378		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
6379		aiVector3D *arg2 = 0 ;
6380		aiMatrix4x4 *result = 0 ;
6381
6382		arg1 = (aiMatrix4x4 *)jarg1;
6383		arg2 = (aiVector3D *)jarg2;
	11277	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11278	aiVector3t< float > *arg2 = 0 ;
	11279	aiMatrix4x4t< float > *result = 0 ;
	11280
	11281	arg1 = (aiMatrix4x4t< float > *)jarg1;
	11282	arg2 = (aiVector3t< float > *)jarg2;
6384	11283	if (!arg2) {
6385		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	11284	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
6386	11285	return 0;
6387	11286	}
6388		result = (aiMatrix4x4 ) &(arg1)->FromEulerAnglesXYZ((aiVector3D const &)arg2);
	11287	result = (aiMatrix4x4t< float > ) &(arg1)->FromEulerAnglesXYZ((aiVector3t< float > const &)arg2);
6389	11288	jresult = (void *)result;
6390	11289	return jresult;
6391	11290	}

6394	11293	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_RotationX(float jarg1, void * jarg2) {
6395	11294	void * jresult ;
6396	11295	float arg1 ;
6397		aiMatrix4x4 *arg2 = 0 ;
6398		aiMatrix4x4 *result = 0 ;
	11296	aiMatrix4x4t< float > *arg2 = 0 ;
	11297	aiMatrix4x4t< float > *result = 0 ;
6399	11298
6400	11299	arg1 = (float)jarg1;
6401		arg2 = (aiMatrix4x4 *)jarg2;
	11300	arg2 = (aiMatrix4x4t< float > *)jarg2;
6402	11301	if (!arg2) {
6403		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 & type is null", 0);
	11302	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > & type is null", 0);
6404	11303	return 0;
6405	11304	}
6406		result = (aiMatrix4x4 ) &aiMatrix4x4::RotationX(arg1,arg2);
	11305	result = (aiMatrix4x4t< float > ) &aiMatrix4x4t< float >::SWIGTEMPLATEDISAMBIGUATOR RotationX(arg1,arg2);
6407	11306	jresult = (void *)result;
6408	11307	return jresult;
6409	11308	}

6412	11311	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_RotationY(float jarg1, void * jarg2) {
6413	11312	void * jresult ;
6414	11313	float arg1 ;
6415		aiMatrix4x4 *arg2 = 0 ;
6416		aiMatrix4x4 *result = 0 ;
	11314	aiMatrix4x4t< float > *arg2 = 0 ;
	11315	aiMatrix4x4t< float > *result = 0 ;
6417	11316
6418	11317	arg1 = (float)jarg1;
6419		arg2 = (aiMatrix4x4 *)jarg2;
	11318	arg2 = (aiMatrix4x4t< float > *)jarg2;
6420	11319	if (!arg2) {
6421		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 & type is null", 0);
	11320	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > & type is null", 0);
6422	11321	return 0;
6423	11322	}
6424		result = (aiMatrix4x4 ) &aiMatrix4x4::RotationY(arg1,arg2);
	11323	result = (aiMatrix4x4t< float > ) &aiMatrix4x4t< float >::SWIGTEMPLATEDISAMBIGUATOR RotationY(arg1,arg2);
6425	11324	jresult = (void *)result;
6426	11325	return jresult;
6427	11326	}

6430	11329	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_RotationZ(float jarg1, void * jarg2) {
6431	11330	void * jresult ;
6432	11331	float arg1 ;
6433		aiMatrix4x4 *arg2 = 0 ;
6434		aiMatrix4x4 *result = 0 ;
	11332	aiMatrix4x4t< float > *arg2 = 0 ;
	11333	aiMatrix4x4t< float > *result = 0 ;
6435	11334
6436	11335	arg1 = (float)jarg1;
6437		arg2 = (aiMatrix4x4 *)jarg2;
	11336	arg2 = (aiMatrix4x4t< float > *)jarg2;
6438	11337	if (!arg2) {
6439		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 & type is null", 0);
	11338	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > & type is null", 0);
6440	11339	return 0;
6441	11340	}
6442		result = (aiMatrix4x4 ) &aiMatrix4x4::RotationZ(arg1,arg2);
	11341	result = (aiMatrix4x4t< float > ) &aiMatrix4x4t< float >::SWIGTEMPLATEDISAMBIGUATOR RotationZ(arg1,arg2);
6443	11342	jresult = (void *)result;
6444	11343	return jresult;
6445	11344	}

6448	11347	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_Rotation(float jarg1, void * jarg2, void * jarg3) {
6449	11348	void * jresult ;
6450	11349	float arg1 ;
6451		aiVector3D *arg2 = 0 ;
6452		aiMatrix4x4 *arg3 = 0 ;
6453		aiMatrix4x4 *result = 0 ;
	11350	aiVector3t< float > *arg2 = 0 ;
	11351	aiMatrix4x4t< float > *arg3 = 0 ;
	11352	aiMatrix4x4t< float > *result = 0 ;
6454	11353
6455	11354	arg1 = (float)jarg1;
6456		arg2 = (aiVector3D *)jarg2;
	11355	arg2 = (aiVector3t< float > *)jarg2;
6457	11356	if (!arg2) {
6458		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	11357	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
6459	11358	return 0;
6460	11359	}
6461		arg3 = (aiMatrix4x4 *)jarg3;
	11360	arg3 = (aiMatrix4x4t< float > *)jarg3;
6462	11361	if (!arg3) {
6463		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 & type is null", 0);
	11362	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > & type is null", 0);
6464	11363	return 0;
6465	11364	}
6466		result = (aiMatrix4x4 ) &aiMatrix4x4::Rotation(arg1,(aiVector3D const &)arg2,*arg3);
	11365	result = (aiMatrix4x4t< float > ) &aiMatrix4x4t< float >::SWIGTEMPLATEDISAMBIGUATOR Rotation(arg1,(aiVector3t< float > const &)arg2,*arg3);
6467	11366	jresult = (void *)result;
6468	11367	return jresult;
6469	11368	}

6471	11370
6472	11371	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_Translation(void * jarg1, void * jarg2) {
6473	11372	void * jresult ;
6474		aiVector3D *arg1 = 0 ;
6475		aiMatrix4x4 *arg2 = 0 ;
6476		aiMatrix4x4 *result = 0 ;
6477
6478		arg1 = (aiVector3D *)jarg1;
	11373	aiVector3t< float > *arg1 = 0 ;
	11374	aiMatrix4x4t< float > *arg2 = 0 ;
	11375	aiMatrix4x4t< float > *result = 0 ;
	11376
	11377	arg1 = (aiVector3t< float > *)jarg1;
6479	11378	if (!arg1) {
6480		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	11379	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
6481	11380	return 0;
6482	11381	}
6483		arg2 = (aiMatrix4x4 *)jarg2;
	11382	arg2 = (aiMatrix4x4t< float > *)jarg2;
6484	11383	if (!arg2) {
6485		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 & type is null", 0);
	11384	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > & type is null", 0);
6486	11385	return 0;
6487	11386	}
6488		result = (aiMatrix4x4 ) &aiMatrix4x4::Translation((aiVector3D const &)arg1,*arg2);
	11387	result = (aiMatrix4x4t< float > ) &aiMatrix4x4t< float >::SWIGTEMPLATEDISAMBIGUATOR Translation((aiVector3t< float > const &)arg1,*arg2);
6489	11388	jresult = (void *)result;
6490	11389	return jresult;
6491	11390	}

6493	11392
6494	11393	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_Scaling(void * jarg1, void * jarg2) {
6495	11394	void * jresult ;
6496		aiVector3D *arg1 = 0 ;
6497		aiMatrix4x4 *arg2 = 0 ;
6498		aiMatrix4x4 *result = 0 ;
6499
6500		arg1 = (aiVector3D *)jarg1;
	11395	aiVector3t< float > *arg1 = 0 ;
	11396	aiMatrix4x4t< float > *arg2 = 0 ;
	11397	aiMatrix4x4t< float > *result = 0 ;
	11398
	11399	arg1 = (aiVector3t< float > *)jarg1;
6501	11400	if (!arg1) {
6502		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	11401	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
6503	11402	return 0;
6504	11403	}
6505		arg2 = (aiMatrix4x4 *)jarg2;
	11404	arg2 = (aiMatrix4x4t< float > *)jarg2;
6506	11405	if (!arg2) {
6507		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 & type is null", 0);
	11406	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > & type is null", 0);
6508	11407	return 0;
6509	11408	}
6510		result = (aiMatrix4x4 ) &aiMatrix4x4::Scaling((aiVector3D const &)arg1,*arg2);
	11409	result = (aiMatrix4x4t< float > ) &aiMatrix4x4t< float >::SWIGTEMPLATEDISAMBIGUATOR Scaling((aiVector3t< float > const &)arg1,*arg2);
6511	11410	jresult = (void *)result;
6512	11411	return jresult;
6513	11412	}

6515	11414
6516	11415	SWIGEXPORT void * SWIGSTDCALL CSharp_aiMatrix4x4_FromToMatrix(void * jarg1, void * jarg2, void * jarg3) {
6517	11416	void * jresult ;
6518		aiVector3D *arg1 = 0 ;
6519		aiVector3D *arg2 = 0 ;
6520		aiMatrix4x4 *arg3 = 0 ;
6521		aiMatrix4x4 *result = 0 ;
6522
6523		arg1 = (aiVector3D *)jarg1;
	11417	aiVector3t< float > *arg1 = 0 ;
	11418	aiVector3t< float > *arg2 = 0 ;
	11419	aiMatrix4x4t< float > *arg3 = 0 ;
	11420	aiMatrix4x4t< float > *result = 0 ;
	11421
	11422	arg1 = (aiVector3t< float > *)jarg1;
6524	11423	if (!arg1) {
6525		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	11424	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
6526	11425	return 0;
6527	11426	}
6528		arg2 = (aiVector3D *)jarg2;
	11427	arg2 = (aiVector3t< float > *)jarg2;
6529	11428	if (!arg2) {
6530		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
	11429	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3t< float > const & type is null", 0);
6531	11430	return 0;
6532	11431	}
6533		arg3 = (aiMatrix4x4 *)jarg3;
	11432	arg3 = (aiMatrix4x4t< float > *)jarg3;
6534	11433	if (!arg3) {
6535		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 & type is null", 0);
	11434	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4t< float > & type is null", 0);
6536	11435	return 0;
6537	11436	}
6538		result = (aiMatrix4x4 ) &aiMatrix4x4::FromToMatrix((aiVector3D const &)arg1,(aiVector3D const &)arg2,arg3);
	11437	result = (aiMatrix4x4t< float > ) &aiMatrix4x4t< float >::SWIGTEMPLATEDISAMBIGUATOR FromToMatrix((aiVector3t< float > const &)arg1,(aiVector3t< float > const &)arg2,arg3);
6539	11438	jresult = (void *)result;
6540	11439	return jresult;
6541	11440	}
6542	11441
6543	11442
6544	11443	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_a1_set(void * jarg1, float jarg2) {
6545		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11444	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6546	11445	float arg2 ;
6547	11446
6548		arg1 = (aiMatrix4x4 *)jarg1;
	11447	arg1 = (aiMatrix4x4t< float > *)jarg1;
6549	11448	arg2 = (float)jarg2;
6550	11449	if (arg1) (arg1)->a1 = arg2;
6551	11450	}

6553	11452
6554	11453	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_a1_get(void * jarg1) {
6555	11454	float jresult ;
6556		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11455	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6557	11456	float result;
6558	11457
6559		arg1 = (aiMatrix4x4 *)jarg1;
	11458	arg1 = (aiMatrix4x4t< float > *)jarg1;
6560	11459	result = (float) ((arg1)->a1);
6561	11460	jresult = result;
6562	11461	return jresult;

6564	11463
6565	11464
6566	11465	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_a2_set(void * jarg1, float jarg2) {
6567		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11466	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6568	11467	float arg2 ;
6569	11468
6570		arg1 = (aiMatrix4x4 *)jarg1;
	11469	arg1 = (aiMatrix4x4t< float > *)jarg1;
6571	11470	arg2 = (float)jarg2;
6572	11471	if (arg1) (arg1)->a2 = arg2;
6573	11472	}

6575	11474
6576	11475	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_a2_get(void * jarg1) {
6577	11476	float jresult ;
6578		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11477	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6579	11478	float result;
6580	11479
6581		arg1 = (aiMatrix4x4 *)jarg1;
	11480	arg1 = (aiMatrix4x4t< float > *)jarg1;
6582	11481	result = (float) ((arg1)->a2);
6583	11482	jresult = result;
6584	11483	return jresult;

6586	11485
6587	11486
6588	11487	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_a3_set(void * jarg1, float jarg2) {
6589		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11488	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6590	11489	float arg2 ;
6591	11490
6592		arg1 = (aiMatrix4x4 *)jarg1;
	11491	arg1 = (aiMatrix4x4t< float > *)jarg1;
6593	11492	arg2 = (float)jarg2;
6594	11493	if (arg1) (arg1)->a3 = arg2;
6595	11494	}

6597	11496
6598	11497	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_a3_get(void * jarg1) {
6599	11498	float jresult ;
6600		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11499	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6601	11500	float result;
6602	11501
6603		arg1 = (aiMatrix4x4 *)jarg1;
	11502	arg1 = (aiMatrix4x4t< float > *)jarg1;
6604	11503	result = (float) ((arg1)->a3);
6605	11504	jresult = result;
6606	11505	return jresult;

6608	11507
6609	11508
6610	11509	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_a4_set(void * jarg1, float jarg2) {
6611		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11510	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6612	11511	float arg2 ;
6613	11512
6614		arg1 = (aiMatrix4x4 *)jarg1;
	11513	arg1 = (aiMatrix4x4t< float > *)jarg1;
6615	11514	arg2 = (float)jarg2;
6616	11515	if (arg1) (arg1)->a4 = arg2;
6617	11516	}

6619	11518
6620	11519	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_a4_get(void * jarg1) {
6621	11520	float jresult ;
6622		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11521	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6623	11522	float result;
6624	11523
6625		arg1 = (aiMatrix4x4 *)jarg1;
	11524	arg1 = (aiMatrix4x4t< float > *)jarg1;
6626	11525	result = (float) ((arg1)->a4);
6627	11526	jresult = result;
6628	11527	return jresult;

6630	11529
6631	11530
6632	11531	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_b1_set(void * jarg1, float jarg2) {
6633		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11532	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6634	11533	float arg2 ;
6635	11534
6636		arg1 = (aiMatrix4x4 *)jarg1;
	11535	arg1 = (aiMatrix4x4t< float > *)jarg1;
6637	11536	arg2 = (float)jarg2;
6638	11537	if (arg1) (arg1)->b1 = arg2;
6639	11538	}

6641	11540
6642	11541	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_b1_get(void * jarg1) {
6643	11542	float jresult ;
6644		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11543	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6645	11544	float result;
6646	11545
6647		arg1 = (aiMatrix4x4 *)jarg1;
	11546	arg1 = (aiMatrix4x4t< float > *)jarg1;
6648	11547	result = (float) ((arg1)->b1);
6649	11548	jresult = result;
6650	11549	return jresult;

6652	11551
6653	11552
6654	11553	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_b2_set(void * jarg1, float jarg2) {
6655		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11554	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6656	11555	float arg2 ;
6657	11556
6658		arg1 = (aiMatrix4x4 *)jarg1;
	11557	arg1 = (aiMatrix4x4t< float > *)jarg1;
6659	11558	arg2 = (float)jarg2;
6660	11559	if (arg1) (arg1)->b2 = arg2;
6661	11560	}

6663	11562
6664	11563	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_b2_get(void * jarg1) {
6665	11564	float jresult ;
6666		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11565	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6667	11566	float result;
6668	11567
6669		arg1 = (aiMatrix4x4 *)jarg1;
	11568	arg1 = (aiMatrix4x4t< float > *)jarg1;
6670	11569	result = (float) ((arg1)->b2);
6671	11570	jresult = result;
6672	11571	return jresult;

6674	11573
6675	11574
6676	11575	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_b3_set(void * jarg1, float jarg2) {
6677		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11576	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6678	11577	float arg2 ;
6679	11578
6680		arg1 = (aiMatrix4x4 *)jarg1;
	11579	arg1 = (aiMatrix4x4t< float > *)jarg1;
6681	11580	arg2 = (float)jarg2;
6682	11581	if (arg1) (arg1)->b3 = arg2;
6683	11582	}

6685	11584
6686	11585	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_b3_get(void * jarg1) {
6687	11586	float jresult ;
6688		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11587	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6689	11588	float result;
6690	11589
6691		arg1 = (aiMatrix4x4 *)jarg1;
	11590	arg1 = (aiMatrix4x4t< float > *)jarg1;
6692	11591	result = (float) ((arg1)->b3);
6693	11592	jresult = result;
6694	11593	return jresult;

6696	11595
6697	11596
6698	11597	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_b4_set(void * jarg1, float jarg2) {
6699		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11598	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6700	11599	float arg2 ;
6701	11600
6702		arg1 = (aiMatrix4x4 *)jarg1;
	11601	arg1 = (aiMatrix4x4t< float > *)jarg1;
6703	11602	arg2 = (float)jarg2;
6704	11603	if (arg1) (arg1)->b4 = arg2;
6705	11604	}

6707	11606
6708	11607	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_b4_get(void * jarg1) {
6709	11608	float jresult ;
6710		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11609	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6711	11610	float result;
6712	11611
6713		arg1 = (aiMatrix4x4 *)jarg1;
	11612	arg1 = (aiMatrix4x4t< float > *)jarg1;
6714	11613	result = (float) ((arg1)->b4);
6715	11614	jresult = result;
6716	11615	return jresult;

6718	11617
6719	11618
6720	11619	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_c1_set(void * jarg1, float jarg2) {
6721		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11620	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6722	11621	float arg2 ;
6723	11622
6724		arg1 = (aiMatrix4x4 *)jarg1;
	11623	arg1 = (aiMatrix4x4t< float > *)jarg1;
6725	11624	arg2 = (float)jarg2;
6726	11625	if (arg1) (arg1)->c1 = arg2;
6727	11626	}

6729	11628
6730	11629	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_c1_get(void * jarg1) {
6731	11630	float jresult ;
6732		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11631	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6733	11632	float result;
6734	11633
6735		arg1 = (aiMatrix4x4 *)jarg1;
	11634	arg1 = (aiMatrix4x4t< float > *)jarg1;
6736	11635	result = (float) ((arg1)->c1);
6737	11636	jresult = result;
6738	11637	return jresult;

6740	11639
6741	11640
6742	11641	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_c2_set(void * jarg1, float jarg2) {
6743		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11642	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6744	11643	float arg2 ;
6745	11644
6746		arg1 = (aiMatrix4x4 *)jarg1;
	11645	arg1 = (aiMatrix4x4t< float > *)jarg1;
6747	11646	arg2 = (float)jarg2;
6748	11647	if (arg1) (arg1)->c2 = arg2;
6749	11648	}

6751	11650
6752	11651	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_c2_get(void * jarg1) {
6753	11652	float jresult ;
6754		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11653	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6755	11654	float result;
6756	11655
6757		arg1 = (aiMatrix4x4 *)jarg1;
	11656	arg1 = (aiMatrix4x4t< float > *)jarg1;
6758	11657	result = (float) ((arg1)->c2);
6759	11658	jresult = result;
6760	11659	return jresult;

6762	11661
6763	11662
6764	11663	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_c3_set(void * jarg1, float jarg2) {
6765		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11664	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6766	11665	float arg2 ;
6767	11666
6768		arg1 = (aiMatrix4x4 *)jarg1;
	11667	arg1 = (aiMatrix4x4t< float > *)jarg1;
6769	11668	arg2 = (float)jarg2;
6770	11669	if (arg1) (arg1)->c3 = arg2;
6771	11670	}

6773	11672
6774	11673	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_c3_get(void * jarg1) {
6775	11674	float jresult ;
6776		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11675	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6777	11676	float result;
6778	11677
6779		arg1 = (aiMatrix4x4 *)jarg1;
	11678	arg1 = (aiMatrix4x4t< float > *)jarg1;
6780	11679	result = (float) ((arg1)->c3);
6781	11680	jresult = result;
6782	11681	return jresult;

6784	11683
6785	11684
6786	11685	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_c4_set(void * jarg1, float jarg2) {
6787		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11686	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6788	11687	float arg2 ;
6789	11688
6790		arg1 = (aiMatrix4x4 *)jarg1;
	11689	arg1 = (aiMatrix4x4t< float > *)jarg1;
6791	11690	arg2 = (float)jarg2;
6792	11691	if (arg1) (arg1)->c4 = arg2;
6793	11692	}

6795	11694
6796	11695	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_c4_get(void * jarg1) {
6797	11696	float jresult ;
6798		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11697	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6799	11698	float result;
6800	11699
6801		arg1 = (aiMatrix4x4 *)jarg1;
	11700	arg1 = (aiMatrix4x4t< float > *)jarg1;
6802	11701	result = (float) ((arg1)->c4);
6803	11702	jresult = result;
6804	11703	return jresult;

6806	11705
6807	11706
6808	11707	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_d1_set(void * jarg1, float jarg2) {
6809		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11708	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6810	11709	float arg2 ;
6811	11710
6812		arg1 = (aiMatrix4x4 *)jarg1;
	11711	arg1 = (aiMatrix4x4t< float > *)jarg1;
6813	11712	arg2 = (float)jarg2;
6814	11713	if (arg1) (arg1)->d1 = arg2;
6815	11714	}

6817	11716
6818	11717	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_d1_get(void * jarg1) {
6819	11718	float jresult ;
6820		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11719	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6821	11720	float result;
6822	11721
6823		arg1 = (aiMatrix4x4 *)jarg1;
	11722	arg1 = (aiMatrix4x4t< float > *)jarg1;
6824	11723	result = (float) ((arg1)->d1);
6825	11724	jresult = result;
6826	11725	return jresult;

6828	11727
6829	11728
6830	11729	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_d2_set(void * jarg1, float jarg2) {
6831		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11730	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6832	11731	float arg2 ;
6833	11732
6834		arg1 = (aiMatrix4x4 *)jarg1;
	11733	arg1 = (aiMatrix4x4t< float > *)jarg1;
6835	11734	arg2 = (float)jarg2;
6836	11735	if (arg1) (arg1)->d2 = arg2;
6837	11736	}

6839	11738
6840	11739	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_d2_get(void * jarg1) {
6841	11740	float jresult ;
6842		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11741	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6843	11742	float result;
6844	11743
6845		arg1 = (aiMatrix4x4 *)jarg1;
	11744	arg1 = (aiMatrix4x4t< float > *)jarg1;
6846	11745	result = (float) ((arg1)->d2);
6847	11746	jresult = result;
6848	11747	return jresult;

6850	11749
6851	11750
6852	11751	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_d3_set(void * jarg1, float jarg2) {
6853		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11752	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6854	11753	float arg2 ;
6855	11754
6856		arg1 = (aiMatrix4x4 *)jarg1;
	11755	arg1 = (aiMatrix4x4t< float > *)jarg1;
6857	11756	arg2 = (float)jarg2;
6858	11757	if (arg1) (arg1)->d3 = arg2;
6859	11758	}

6861	11760
6862	11761	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_d3_get(void * jarg1) {
6863	11762	float jresult ;
6864		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11763	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6865	11764	float result;
6866	11765
6867		arg1 = (aiMatrix4x4 *)jarg1;
	11766	arg1 = (aiMatrix4x4t< float > *)jarg1;
6868	11767	result = (float) ((arg1)->d3);
6869	11768	jresult = result;
6870	11769	return jresult;

6872	11771
6873	11772
6874	11773	SWIGEXPORT void SWIGSTDCALL CSharp_aiMatrix4x4_d4_set(void * jarg1, float jarg2) {
6875		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11774	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6876	11775	float arg2 ;
6877	11776
6878		arg1 = (aiMatrix4x4 *)jarg1;
	11777	arg1 = (aiMatrix4x4t< float > *)jarg1;
6879	11778	arg2 = (float)jarg2;
6880	11779	if (arg1) (arg1)->d4 = arg2;
6881	11780	}

6883	11782
6884	11783	SWIGEXPORT float SWIGSTDCALL CSharp_aiMatrix4x4_d4_get(void * jarg1) {
6885	11784	float jresult ;
6886		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
	11785	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
6887	11786	float result;
6888	11787
6889		arg1 = (aiMatrix4x4 *)jarg1;
	11788	arg1 = (aiMatrix4x4t< float > *)jarg1;
6890	11789	result = (float) ((arg1)->d4);
6891	11790	jresult = result;
6892	11791	return jresult;

6894	11793
6895	11794
6896	11795	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMatrix4x4(void * jarg1) {
6897		aiMatrix4x4 arg1 = (aiMatrix4x4 ) 0 ;
6898
6899		arg1 = (aiMatrix4x4 *)jarg1;
	11796	aiMatrix4x4t< float > arg1 = (aiMatrix4x4t< float > ) 0 ;
	11797
	11798	arg1 = (aiMatrix4x4t< float > *)jarg1;
6900	11799	delete arg1;
6901		}
6902
6903
6904		SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mName_set(void * jarg1, void * jarg2) {
6905		aiCamera arg1 = (aiCamera ) 0 ;
6906		aiString arg2 = (aiString ) 0 ;
6907
6908		arg1 = (aiCamera *)jarg1;
6909		arg2 = (aiString *)jarg2;
6910		if (arg1) (arg1)->mName = *arg2;
6911		}
6912
6913
6914		SWIGEXPORT void * SWIGSTDCALL CSharp_aiCamera_mName_get(void * jarg1) {
6915		void * jresult ;
6916		aiCamera arg1 = (aiCamera ) 0 ;
6917		aiString *result = 0 ;
6918
6919		arg1 = (aiCamera *)jarg1;
6920		result = (aiString *)& ((arg1)->mName);
6921		jresult = (void *)result;
6922		return jresult;
6923		}
6924
6925
6926		SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mPosition_set(void * jarg1, void * jarg2) {
6927		aiCamera arg1 = (aiCamera ) 0 ;
6928		aiVector3D arg2 = (aiVector3D ) 0 ;
6929
6930		arg1 = (aiCamera *)jarg1;
6931		arg2 = (aiVector3D *)jarg2;
6932		if (arg1) (arg1)->mPosition = *arg2;
6933		}
6934
6935
6936		SWIGEXPORT void * SWIGSTDCALL CSharp_aiCamera_mPosition_get(void * jarg1) {
6937		void * jresult ;
6938		aiCamera arg1 = (aiCamera ) 0 ;
6939		aiVector3D *result = 0 ;
6940
6941		arg1 = (aiCamera *)jarg1;
6942		result = (aiVector3D *)& ((arg1)->mPosition);
6943		jresult = (void *)result;
6944		return jresult;
6945		}
6946
6947
6948		SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mUp_set(void * jarg1, void * jarg2) {
6949		aiCamera arg1 = (aiCamera ) 0 ;
6950		aiVector3D arg2 = (aiVector3D ) 0 ;
6951
6952		arg1 = (aiCamera *)jarg1;
6953		arg2 = (aiVector3D *)jarg2;
6954		if (arg1) (arg1)->mUp = *arg2;
6955		}
6956
6957
6958		SWIGEXPORT void * SWIGSTDCALL CSharp_aiCamera_mUp_get(void * jarg1) {
6959		void * jresult ;
6960		aiCamera arg1 = (aiCamera ) 0 ;
6961		aiVector3D *result = 0 ;
6962
6963		arg1 = (aiCamera *)jarg1;
6964		result = (aiVector3D *)& ((arg1)->mUp);
6965		jresult = (void *)result;
6966		return jresult;
6967		}
6968
6969
6970		SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mLookAt_set(void * jarg1, void * jarg2) {
6971		aiCamera arg1 = (aiCamera ) 0 ;
6972		aiVector3D arg2 = (aiVector3D ) 0 ;
6973
6974		arg1 = (aiCamera *)jarg1;
6975		arg2 = (aiVector3D *)jarg2;
6976		if (arg1) (arg1)->mLookAt = *arg2;
6977		}
6978
6979
6980		SWIGEXPORT void * SWIGSTDCALL CSharp_aiCamera_mLookAt_get(void * jarg1) {
6981		void * jresult ;
6982		aiCamera arg1 = (aiCamera ) 0 ;
6983		aiVector3D *result = 0 ;
6984
6985		arg1 = (aiCamera *)jarg1;
6986		result = (aiVector3D *)& ((arg1)->mLookAt);
6987		jresult = (void *)result;
6988		return jresult;
6989		}
6990
6991
6992		SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mHorizontalFOV_set(void * jarg1, float jarg2) {
6993		aiCamera arg1 = (aiCamera ) 0 ;
6994		float arg2 ;
6995
6996		arg1 = (aiCamera *)jarg1;
6997		arg2 = (float)jarg2;
6998		if (arg1) (arg1)->mHorizontalFOV = arg2;
6999		}
7000
7001
7002		SWIGEXPORT float SWIGSTDCALL CSharp_aiCamera_mHorizontalFOV_get(void * jarg1) {
7003		float jresult ;
7004		aiCamera arg1 = (aiCamera ) 0 ;
7005		float result;
7006
7007		arg1 = (aiCamera *)jarg1;
7008		result = (float) ((arg1)->mHorizontalFOV);
7009		jresult = result;
7010		return jresult;
7011		}
7012
7013
7014		SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mClipPlaneNear_set(void * jarg1, float jarg2) {
7015		aiCamera arg1 = (aiCamera ) 0 ;
7016		float arg2 ;
7017
7018		arg1 = (aiCamera *)jarg1;
7019		arg2 = (float)jarg2;
7020		if (arg1) (arg1)->mClipPlaneNear = arg2;
7021		}
7022
7023
7024		SWIGEXPORT float SWIGSTDCALL CSharp_aiCamera_mClipPlaneNear_get(void * jarg1) {
7025		float jresult ;
7026		aiCamera arg1 = (aiCamera ) 0 ;
7027		float result;
7028
7029		arg1 = (aiCamera *)jarg1;
7030		result = (float) ((arg1)->mClipPlaneNear);
7031		jresult = result;
7032		return jresult;
7033		}
7034
7035
7036		SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mClipPlaneFar_set(void * jarg1, float jarg2) {
7037		aiCamera arg1 = (aiCamera ) 0 ;
7038		float arg2 ;
7039
7040		arg1 = (aiCamera *)jarg1;
7041		arg2 = (float)jarg2;
7042		if (arg1) (arg1)->mClipPlaneFar = arg2;
7043		}
7044
7045
7046		SWIGEXPORT float SWIGSTDCALL CSharp_aiCamera_mClipPlaneFar_get(void * jarg1) {
7047		float jresult ;
7048		aiCamera arg1 = (aiCamera ) 0 ;
7049		float result;
7050
7051		arg1 = (aiCamera *)jarg1;
7052		result = (float) ((arg1)->mClipPlaneFar);
7053		jresult = result;
7054		return jresult;
7055		}
7056
7057
7058		SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_mAspect_set(void * jarg1, float jarg2) {
7059		aiCamera arg1 = (aiCamera ) 0 ;
7060		float arg2 ;
7061
7062		arg1 = (aiCamera *)jarg1;
7063		arg2 = (float)jarg2;
7064		if (arg1) (arg1)->mAspect = arg2;
7065		}
7066
7067
7068		SWIGEXPORT float SWIGSTDCALL CSharp_aiCamera_mAspect_get(void * jarg1) {
7069		float jresult ;
7070		aiCamera arg1 = (aiCamera ) 0 ;
7071		float result;
7072
7073		arg1 = (aiCamera *)jarg1;
7074		result = (float) ((arg1)->mAspect);
7075		jresult = result;
7076		return jresult;
7077		}
7078
7079
7080		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiCamera() {
7081		void * jresult ;
7082		aiCamera *result = 0 ;
7083
7084		result = (aiCamera *)new aiCamera();
7085		jresult = (void *)result;
7086		return jresult;
7087		}
7088
7089
7090		SWIGEXPORT void SWIGSTDCALL CSharp_aiCamera_GetCameraMatrix(void * jarg1, void * jarg2) {
7091		aiCamera arg1 = (aiCamera ) 0 ;
7092		aiMatrix4x4 *arg2 = 0 ;
7093
7094		arg1 = (aiCamera *)jarg1;
7095		arg2 = (aiMatrix4x4 *)jarg2;
7096		if (!arg2) {
7097		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix4x4 & type is null", 0);
7098		return ;
7099		}
7100		((aiCamera const )arg1)->GetCameraMatrix(arg2);
7101		}
7102
7103
7104		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiCamera(void * jarg1) {
7105		aiCamera arg1 = (aiCamera ) 0 ;
7106
7107		arg1 = (aiCamera *)jarg1;
7108		delete arg1;
7109		}
7110
7111
7112		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mName_set(void * jarg1, void * jarg2) {
7113		aiLight arg1 = (aiLight ) 0 ;
7114		aiString arg2 = (aiString ) 0 ;
7115
7116		arg1 = (aiLight *)jarg1;
7117		arg2 = (aiString *)jarg2;
7118		if (arg1) (arg1)->mName = *arg2;
7119		}
7120
7121
7122		SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mName_get(void * jarg1) {
7123		void * jresult ;
7124		aiLight arg1 = (aiLight ) 0 ;
7125		aiString *result = 0 ;
7126
7127		arg1 = (aiLight *)jarg1;
7128		result = (aiString *)& ((arg1)->mName);
7129		jresult = (void *)result;
7130		return jresult;
7131		}
7132
7133
7134		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mType_set(void * jarg1, int jarg2) {
7135		aiLight arg1 = (aiLight ) 0 ;
7136		aiLightSourceType arg2 ;
7137
7138		arg1 = (aiLight *)jarg1;
7139		arg2 = (aiLightSourceType)jarg2;
7140		if (arg1) (arg1)->mType = arg2;
7141		}
7142
7143
7144		SWIGEXPORT int SWIGSTDCALL CSharp_aiLight_mType_get(void * jarg1) {
7145		int jresult ;
7146		aiLight arg1 = (aiLight ) 0 ;
7147		aiLightSourceType result;
7148
7149		arg1 = (aiLight *)jarg1;
7150		result = (aiLightSourceType) ((arg1)->mType);
7151		jresult = result;
7152		return jresult;
7153		}
7154
7155
7156		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mPosition_set(void * jarg1, void * jarg2) {
7157		aiLight arg1 = (aiLight ) 0 ;
7158		aiVector3D arg2 = (aiVector3D ) 0 ;
7159
7160		arg1 = (aiLight *)jarg1;
7161		arg2 = (aiVector3D *)jarg2;
7162		if (arg1) (arg1)->mPosition = *arg2;
7163		}
7164
7165
7166		SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mPosition_get(void * jarg1) {
7167		void * jresult ;
7168		aiLight arg1 = (aiLight ) 0 ;
7169		aiVector3D *result = 0 ;
7170
7171		arg1 = (aiLight *)jarg1;
7172		result = (aiVector3D *)& ((arg1)->mPosition);
7173		jresult = (void *)result;
7174		return jresult;
7175		}
7176
7177
7178		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mDirection_set(void * jarg1, void * jarg2) {
7179		aiLight arg1 = (aiLight ) 0 ;
7180		aiVector3D arg2 = (aiVector3D ) 0 ;
7181
7182		arg1 = (aiLight *)jarg1;
7183		arg2 = (aiVector3D *)jarg2;
7184		if (arg1) (arg1)->mDirection = *arg2;
7185		}
7186
7187
7188		SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mDirection_get(void * jarg1) {
7189		void * jresult ;
7190		aiLight arg1 = (aiLight ) 0 ;
7191		aiVector3D *result = 0 ;
7192
7193		arg1 = (aiLight *)jarg1;
7194		result = (aiVector3D *)& ((arg1)->mDirection);
7195		jresult = (void *)result;
7196		return jresult;
7197		}
7198
7199
7200		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mAttenuationConstant_set(void * jarg1, float jarg2) {
7201		aiLight arg1 = (aiLight ) 0 ;
7202		float arg2 ;
7203
7204		arg1 = (aiLight *)jarg1;
7205		arg2 = (float)jarg2;
7206		if (arg1) (arg1)->mAttenuationConstant = arg2;
7207		}
7208
7209
7210		SWIGEXPORT float SWIGSTDCALL CSharp_aiLight_mAttenuationConstant_get(void * jarg1) {
7211		float jresult ;
7212		aiLight arg1 = (aiLight ) 0 ;
7213		float result;
7214
7215		arg1 = (aiLight *)jarg1;
7216		result = (float) ((arg1)->mAttenuationConstant);
7217		jresult = result;
7218		return jresult;
7219		}
7220
7221
7222		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mAttenuationLinear_set(void * jarg1, float jarg2) {
7223		aiLight arg1 = (aiLight ) 0 ;
7224		float arg2 ;
7225
7226		arg1 = (aiLight *)jarg1;
7227		arg2 = (float)jarg2;
7228		if (arg1) (arg1)->mAttenuationLinear = arg2;
7229		}
7230
7231
7232		SWIGEXPORT float SWIGSTDCALL CSharp_aiLight_mAttenuationLinear_get(void * jarg1) {
7233		float jresult ;
7234		aiLight arg1 = (aiLight ) 0 ;
7235		float result;
7236
7237		arg1 = (aiLight *)jarg1;
7238		result = (float) ((arg1)->mAttenuationLinear);
7239		jresult = result;
7240		return jresult;
7241		}
7242
7243
7244		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mAttenuationQuadratic_set(void * jarg1, float jarg2) {
7245		aiLight arg1 = (aiLight ) 0 ;
7246		float arg2 ;
7247
7248		arg1 = (aiLight *)jarg1;
7249		arg2 = (float)jarg2;
7250		if (arg1) (arg1)->mAttenuationQuadratic = arg2;
7251		}
7252
7253
7254		SWIGEXPORT float SWIGSTDCALL CSharp_aiLight_mAttenuationQuadratic_get(void * jarg1) {
7255		float jresult ;
7256		aiLight arg1 = (aiLight ) 0 ;
7257		float result;
7258
7259		arg1 = (aiLight *)jarg1;
7260		result = (float) ((arg1)->mAttenuationQuadratic);
7261		jresult = result;
7262		return jresult;
7263		}
7264
7265
7266		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mColorDiffuse_set(void * jarg1, void * jarg2) {
7267		aiLight arg1 = (aiLight ) 0 ;
7268		aiColor3D arg2 = (aiColor3D ) 0 ;
7269
7270		arg1 = (aiLight *)jarg1;
7271		arg2 = (aiColor3D *)jarg2;
7272		if (arg1) (arg1)->mColorDiffuse = *arg2;
7273		}
7274
7275
7276		SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mColorDiffuse_get(void * jarg1) {
7277		void * jresult ;
7278		aiLight arg1 = (aiLight ) 0 ;
7279		aiColor3D *result = 0 ;
7280
7281		arg1 = (aiLight *)jarg1;
7282		result = (aiColor3D *)& ((arg1)->mColorDiffuse);
7283		jresult = (void *)result;
7284		return jresult;
7285		}
7286
7287
7288		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mColorSpecular_set(void * jarg1, void * jarg2) {
7289		aiLight arg1 = (aiLight ) 0 ;
7290		aiColor3D arg2 = (aiColor3D ) 0 ;
7291
7292		arg1 = (aiLight *)jarg1;
7293		arg2 = (aiColor3D *)jarg2;
7294		if (arg1) (arg1)->mColorSpecular = *arg2;
7295		}
7296
7297
7298		SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mColorSpecular_get(void * jarg1) {
7299		void * jresult ;
7300		aiLight arg1 = (aiLight ) 0 ;
7301		aiColor3D *result = 0 ;
7302
7303		arg1 = (aiLight *)jarg1;
7304		result = (aiColor3D *)& ((arg1)->mColorSpecular);
7305		jresult = (void *)result;
7306		return jresult;
7307		}
7308
7309
7310		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mColorAmbient_set(void * jarg1, void * jarg2) {
7311		aiLight arg1 = (aiLight ) 0 ;
7312		aiColor3D arg2 = (aiColor3D ) 0 ;
7313
7314		arg1 = (aiLight *)jarg1;
7315		arg2 = (aiColor3D *)jarg2;
7316		if (arg1) (arg1)->mColorAmbient = *arg2;
7317		}
7318
7319
7320		SWIGEXPORT void * SWIGSTDCALL CSharp_aiLight_mColorAmbient_get(void * jarg1) {
7321		void * jresult ;
7322		aiLight arg1 = (aiLight ) 0 ;
7323		aiColor3D *result = 0 ;
7324
7325		arg1 = (aiLight *)jarg1;
7326		result = (aiColor3D *)& ((arg1)->mColorAmbient);
7327		jresult = (void *)result;
7328		return jresult;
7329		}
7330
7331
7332		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mAngleInnerCone_set(void * jarg1, float jarg2) {
7333		aiLight arg1 = (aiLight ) 0 ;
7334		float arg2 ;
7335
7336		arg1 = (aiLight *)jarg1;
7337		arg2 = (float)jarg2;
7338		if (arg1) (arg1)->mAngleInnerCone = arg2;
7339		}
7340
7341
7342		SWIGEXPORT float SWIGSTDCALL CSharp_aiLight_mAngleInnerCone_get(void * jarg1) {
7343		float jresult ;
7344		aiLight arg1 = (aiLight ) 0 ;
7345		float result;
7346
7347		arg1 = (aiLight *)jarg1;
7348		result = (float) ((arg1)->mAngleInnerCone);
7349		jresult = result;
7350		return jresult;
7351		}
7352
7353
7354		SWIGEXPORT void SWIGSTDCALL CSharp_aiLight_mAngleOuterCone_set(void * jarg1, float jarg2) {
7355		aiLight arg1 = (aiLight ) 0 ;
7356		float arg2 ;
7357
7358		arg1 = (aiLight *)jarg1;
7359		arg2 = (float)jarg2;
7360		if (arg1) (arg1)->mAngleOuterCone = arg2;
7361		}
7362
7363
7364		SWIGEXPORT float SWIGSTDCALL CSharp_aiLight_mAngleOuterCone_get(void * jarg1) {
7365		float jresult ;
7366		aiLight arg1 = (aiLight ) 0 ;
7367		float result;
7368
7369		arg1 = (aiLight *)jarg1;
7370		result = (float) ((arg1)->mAngleOuterCone);
7371		jresult = result;
7372		return jresult;
7373		}
7374
7375
7376		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiLight() {
7377		void * jresult ;
7378		aiLight *result = 0 ;
7379
7380		result = (aiLight *)new aiLight();
7381		jresult = (void *)result;
7382		return jresult;
7383		}
7384
7385
7386		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiLight(void * jarg1) {
7387		aiLight arg1 = (aiLight ) 0 ;
7388
7389		arg1 = (aiLight *)jarg1;
7390		delete arg1;
7391		}
7392
7393
7394		SWIGEXPORT void SWIGSTDCALL CSharp_aiVectorKey_mTime_set(void * jarg1, double jarg2) {
7395		aiVectorKey arg1 = (aiVectorKey ) 0 ;
7396		double arg2 ;
7397
7398		arg1 = (aiVectorKey *)jarg1;
7399		arg2 = (double)jarg2;
7400		if (arg1) (arg1)->mTime = arg2;
7401		}
7402
7403
7404		SWIGEXPORT double SWIGSTDCALL CSharp_aiVectorKey_mTime_get(void * jarg1) {
7405		double jresult ;
7406		aiVectorKey arg1 = (aiVectorKey ) 0 ;
7407		double result;
7408
7409		arg1 = (aiVectorKey *)jarg1;
7410		result = (double) ((arg1)->mTime);
7411		jresult = result;
7412		return jresult;
7413		}
7414
7415
7416		SWIGEXPORT void SWIGSTDCALL CSharp_aiVectorKey_mValue_set(void * jarg1, void * jarg2) {
7417		aiVectorKey arg1 = (aiVectorKey ) 0 ;
7418		aiVector3D arg2 = (aiVector3D ) 0 ;
7419
7420		arg1 = (aiVectorKey *)jarg1;
7421		arg2 = (aiVector3D *)jarg2;
7422		if (arg1) (arg1)->mValue = *arg2;
7423		}
7424
7425
7426		SWIGEXPORT void * SWIGSTDCALL CSharp_aiVectorKey_mValue_get(void * jarg1) {
7427		void * jresult ;
7428		aiVectorKey arg1 = (aiVectorKey ) 0 ;
7429		aiVector3D *result = 0 ;
7430
7431		arg1 = (aiVectorKey *)jarg1;
7432		result = (aiVector3D *)& ((arg1)->mValue);
7433		jresult = (void *)result;
7434		return jresult;
7435		}
7436
7437
7438		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVectorKey__SWIG_0() {
7439		void * jresult ;
7440		aiVectorKey *result = 0 ;
7441
7442		result = (aiVectorKey *)new aiVectorKey();
7443		jresult = (void *)result;
7444		return jresult;
7445		}
7446
7447
7448		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVectorKey__SWIG_1(double jarg1, void * jarg2) {
7449		void * jresult ;
7450		double arg1 ;
7451		aiVector3D *arg2 = 0 ;
7452		aiVectorKey *result = 0 ;
7453
7454		arg1 = (double)jarg1;
7455		arg2 = (aiVector3D *)jarg2;
7456		if (!arg2) {
7457		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
7458		return 0;
7459		}
7460		result = (aiVectorKey )new aiVectorKey(arg1,(aiVector3D const &)arg2);
7461		jresult = (void *)result;
7462		return jresult;
7463		}
7464
7465
7466		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVectorKey___equal__(void * jarg1, void * jarg2) {
7467		unsigned int jresult ;
7468		aiVectorKey arg1 = (aiVectorKey ) 0 ;
7469		aiVectorKey *arg2 = 0 ;
7470		bool result;
7471
7472		arg1 = (aiVectorKey *)jarg1;
7473		arg2 = (aiVectorKey *)jarg2;
7474		if (!arg2) {
7475		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVectorKey const & type is null", 0);
7476		return 0;
7477		}
7478		result = (bool)((aiVectorKey const )arg1)->operator ==((aiVectorKey const &)arg2);
7479		jresult = result;
7480		return jresult;
7481		}
7482
7483
7484		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVectorKey___nequal__(void * jarg1, void * jarg2) {
7485		unsigned int jresult ;
7486		aiVectorKey arg1 = (aiVectorKey ) 0 ;
7487		aiVectorKey *arg2 = 0 ;
7488		bool result;
7489
7490		arg1 = (aiVectorKey *)jarg1;
7491		arg2 = (aiVectorKey *)jarg2;
7492		if (!arg2) {
7493		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVectorKey const & type is null", 0);
7494		return 0;
7495		}
7496		result = (bool)((aiVectorKey const )arg1)->operator !=((aiVectorKey const &)arg2);
7497		jresult = result;
7498		return jresult;
7499		}
7500
7501
7502		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVectorKey___smaller__(void * jarg1, void * jarg2) {
7503		unsigned int jresult ;
7504		aiVectorKey arg1 = (aiVectorKey ) 0 ;
7505		aiVectorKey *arg2 = 0 ;
7506		bool result;
7507
7508		arg1 = (aiVectorKey *)jarg1;
7509		arg2 = (aiVectorKey *)jarg2;
7510		if (!arg2) {
7511		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVectorKey const & type is null", 0);
7512		return 0;
7513		}
7514		result = (bool)((aiVectorKey const )arg1)->operator <((aiVectorKey const &)arg2);
7515		jresult = result;
7516		return jresult;
7517		}
7518
7519
7520		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVectorKey___greater__(void * jarg1, void * jarg2) {
7521		unsigned int jresult ;
7522		aiVectorKey arg1 = (aiVectorKey ) 0 ;
7523		aiVectorKey *arg2 = 0 ;
7524		bool result;
7525
7526		arg1 = (aiVectorKey *)jarg1;
7527		arg2 = (aiVectorKey *)jarg2;
7528		if (!arg2) {
7529		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVectorKey const & type is null", 0);
7530		return 0;
7531		}
7532		result = (bool)((aiVectorKey const )arg1)->operator >((aiVectorKey const &)arg2);
7533		jresult = result;
7534		return jresult;
7535		}
7536
7537
7538		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiVectorKey(void * jarg1) {
7539		aiVectorKey arg1 = (aiVectorKey ) 0 ;
7540
7541		arg1 = (aiVectorKey *)jarg1;
7542		delete arg1;
7543		}
7544
7545
7546		SWIGEXPORT void SWIGSTDCALL CSharp_aiQuatKey_mTime_set(void * jarg1, double jarg2) {
7547		aiQuatKey arg1 = (aiQuatKey ) 0 ;
7548		double arg2 ;
7549
7550		arg1 = (aiQuatKey *)jarg1;
7551		arg2 = (double)jarg2;
7552		if (arg1) (arg1)->mTime = arg2;
7553		}
7554
7555
7556		SWIGEXPORT double SWIGSTDCALL CSharp_aiQuatKey_mTime_get(void * jarg1) {
7557		double jresult ;
7558		aiQuatKey arg1 = (aiQuatKey ) 0 ;
7559		double result;
7560
7561		arg1 = (aiQuatKey *)jarg1;
7562		result = (double) ((arg1)->mTime);
7563		jresult = result;
7564		return jresult;
7565		}
7566
7567
7568		SWIGEXPORT void SWIGSTDCALL CSharp_aiQuatKey_mValue_set(void * jarg1, void * jarg2) {
7569		aiQuatKey arg1 = (aiQuatKey ) 0 ;
7570		aiQuaternion arg2 = (aiQuaternion ) 0 ;
7571
7572		arg1 = (aiQuatKey *)jarg1;
7573		arg2 = (aiQuaternion *)jarg2;
7574		if (arg1) (arg1)->mValue = *arg2;
7575		}
7576
7577
7578		SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuatKey_mValue_get(void * jarg1) {
7579		void * jresult ;
7580		aiQuatKey arg1 = (aiQuatKey ) 0 ;
7581		aiQuaternion *result = 0 ;
7582
7583		arg1 = (aiQuatKey *)jarg1;
7584		result = (aiQuaternion *)& ((arg1)->mValue);
7585		jresult = (void *)result;
7586		return jresult;
7587		}
7588
7589
7590		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuatKey__SWIG_0() {
7591		void * jresult ;
7592		aiQuatKey *result = 0 ;
7593
7594		result = (aiQuatKey *)new aiQuatKey();
7595		jresult = (void *)result;
7596		return jresult;
7597		}
7598
7599
7600		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuatKey__SWIG_1(double jarg1, void * jarg2) {
7601		void * jresult ;
7602		double arg1 ;
7603		aiQuaternion *arg2 = 0 ;
7604		aiQuatKey *result = 0 ;
7605
7606		arg1 = (double)jarg1;
7607		arg2 = (aiQuaternion *)jarg2;
7608		if (!arg2) {
7609		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaternion const & type is null", 0);
7610		return 0;
7611		}
7612		result = (aiQuatKey )new aiQuatKey(arg1,(aiQuaternion const &)arg2);
7613		jresult = (void *)result;
7614		return jresult;
7615		}
7616
7617
7618		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuatKey___equal__(void * jarg1, void * jarg2) {
7619		unsigned int jresult ;
7620		aiQuatKey arg1 = (aiQuatKey ) 0 ;
7621		aiQuatKey *arg2 = 0 ;
7622		bool result;
7623
7624		arg1 = (aiQuatKey *)jarg1;
7625		arg2 = (aiQuatKey *)jarg2;
7626		if (!arg2) {
7627		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuatKey const & type is null", 0);
7628		return 0;
7629		}
7630		result = (bool)((aiQuatKey const )arg1)->operator ==((aiQuatKey const &)arg2);
7631		jresult = result;
7632		return jresult;
7633		}
7634
7635
7636		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuatKey___nequal__(void * jarg1, void * jarg2) {
7637		unsigned int jresult ;
7638		aiQuatKey arg1 = (aiQuatKey ) 0 ;
7639		aiQuatKey *arg2 = 0 ;
7640		bool result;
7641
7642		arg1 = (aiQuatKey *)jarg1;
7643		arg2 = (aiQuatKey *)jarg2;
7644		if (!arg2) {
7645		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuatKey const & type is null", 0);
7646		return 0;
7647		}
7648		result = (bool)((aiQuatKey const )arg1)->operator !=((aiQuatKey const &)arg2);
7649		jresult = result;
7650		return jresult;
7651		}
7652
7653
7654		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuatKey___smaller__(void * jarg1, void * jarg2) {
7655		unsigned int jresult ;
7656		aiQuatKey arg1 = (aiQuatKey ) 0 ;
7657		aiQuatKey *arg2 = 0 ;
7658		bool result;
7659
7660		arg1 = (aiQuatKey *)jarg1;
7661		arg2 = (aiQuatKey *)jarg2;
7662		if (!arg2) {
7663		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuatKey const & type is null", 0);
7664		return 0;
7665		}
7666		result = (bool)((aiQuatKey const )arg1)->operator <((aiQuatKey const &)arg2);
7667		jresult = result;
7668		return jresult;
7669		}
7670
7671
7672		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuatKey___greater__(void * jarg1, void * jarg2) {
7673		unsigned int jresult ;
7674		aiQuatKey arg1 = (aiQuatKey ) 0 ;
7675		aiQuatKey *arg2 = 0 ;
7676		bool result;
7677
7678		arg1 = (aiQuatKey *)jarg1;
7679		arg2 = (aiQuatKey *)jarg2;
7680		if (!arg2) {
7681		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuatKey const & type is null", 0);
7682		return 0;
7683		}
7684		result = (bool)((aiQuatKey const )arg1)->operator >((aiQuatKey const &)arg2);
7685		jresult = result;
7686		return jresult;
7687		}
7688
7689
7690		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiQuatKey(void * jarg1) {
7691		aiQuatKey arg1 = (aiQuatKey ) 0 ;
7692
7693		arg1 = (aiQuatKey *)jarg1;
7694		delete arg1;
7695		}
7696
7697
7698		SWIGEXPORT void SWIGSTDCALL CSharp_aiMeshKey_mTime_set(void * jarg1, double jarg2) {
7699		aiMeshKey arg1 = (aiMeshKey ) 0 ;
7700		double arg2 ;
7701
7702		arg1 = (aiMeshKey *)jarg1;
7703		arg2 = (double)jarg2;
7704		if (arg1) (arg1)->mTime = arg2;
7705		}
7706
7707
7708		SWIGEXPORT double SWIGSTDCALL CSharp_aiMeshKey_mTime_get(void * jarg1) {
7709		double jresult ;
7710		aiMeshKey arg1 = (aiMeshKey ) 0 ;
7711		double result;
7712
7713		arg1 = (aiMeshKey *)jarg1;
7714		result = (double) ((arg1)->mTime);
7715		jresult = result;
7716		return jresult;
7717		}
7718
7719
7720		SWIGEXPORT void SWIGSTDCALL CSharp_aiMeshKey_mValue_set(void * jarg1, unsigned int jarg2) {
7721		aiMeshKey arg1 = (aiMeshKey ) 0 ;
7722		unsigned int arg2 ;
7723
7724		arg1 = (aiMeshKey *)jarg1;
7725		arg2 = (unsigned int)jarg2;
7726		if (arg1) (arg1)->mValue = arg2;
7727		}
7728
7729
7730		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshKey_mValue_get(void * jarg1) {
7731		unsigned int jresult ;
7732		aiMeshKey arg1 = (aiMeshKey ) 0 ;
7733		unsigned int result;
7734
7735		arg1 = (aiMeshKey *)jarg1;
7736		result = (unsigned int) ((arg1)->mValue);
7737		jresult = result;
7738		return jresult;
7739		}
7740
7741
7742		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMeshKey__SWIG_0() {
7743		void * jresult ;
7744		aiMeshKey *result = 0 ;
7745
7746		result = (aiMeshKey *)new aiMeshKey();
7747		jresult = (void *)result;
7748		return jresult;
7749		}
7750
7751
7752		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMeshKey__SWIG_1(double jarg1, unsigned int jarg2) {
7753		void * jresult ;
7754		double arg1 ;
7755		unsigned int arg2 ;
7756		aiMeshKey *result = 0 ;
7757
7758		arg1 = (double)jarg1;
7759		arg2 = (unsigned int)jarg2;
7760		result = (aiMeshKey *)new aiMeshKey(arg1,arg2);
7761		jresult = (void *)result;
7762		return jresult;
7763		}
7764
7765
7766		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshKey___equal__(void * jarg1, void * jarg2) {
7767		unsigned int jresult ;
7768		aiMeshKey arg1 = (aiMeshKey ) 0 ;
7769		aiMeshKey *arg2 = 0 ;
7770		bool result;
7771
7772		arg1 = (aiMeshKey *)jarg1;
7773		arg2 = (aiMeshKey *)jarg2;
7774		if (!arg2) {
7775		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMeshKey const & type is null", 0);
7776		return 0;
7777		}
7778		result = (bool)((aiMeshKey const )arg1)->operator ==((aiMeshKey const &)arg2);
7779		jresult = result;
7780		return jresult;
7781		}
7782
7783
7784		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshKey___nequal__(void * jarg1, void * jarg2) {
7785		unsigned int jresult ;
7786		aiMeshKey arg1 = (aiMeshKey ) 0 ;
7787		aiMeshKey *arg2 = 0 ;
7788		bool result;
7789
7790		arg1 = (aiMeshKey *)jarg1;
7791		arg2 = (aiMeshKey *)jarg2;
7792		if (!arg2) {
7793		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMeshKey const & type is null", 0);
7794		return 0;
7795		}
7796		result = (bool)((aiMeshKey const )arg1)->operator !=((aiMeshKey const &)arg2);
7797		jresult = result;
7798		return jresult;
7799		}
7800
7801
7802		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshKey___smaller__(void * jarg1, void * jarg2) {
7803		unsigned int jresult ;
7804		aiMeshKey arg1 = (aiMeshKey ) 0 ;
7805		aiMeshKey *arg2 = 0 ;
7806		bool result;
7807
7808		arg1 = (aiMeshKey *)jarg1;
7809		arg2 = (aiMeshKey *)jarg2;
7810		if (!arg2) {
7811		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMeshKey const & type is null", 0);
7812		return 0;
7813		}
7814		result = (bool)((aiMeshKey const )arg1)->operator <((aiMeshKey const &)arg2);
7815		jresult = result;
7816		return jresult;
7817		}
7818
7819
7820		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshKey___greater__(void * jarg1, void * jarg2) {
7821		unsigned int jresult ;
7822		aiMeshKey arg1 = (aiMeshKey ) 0 ;
7823		aiMeshKey *arg2 = 0 ;
7824		bool result;
7825
7826		arg1 = (aiMeshKey *)jarg1;
7827		arg2 = (aiMeshKey *)jarg2;
7828		if (!arg2) {
7829		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMeshKey const & type is null", 0);
7830		return 0;
7831		}
7832		result = (bool)((aiMeshKey const )arg1)->operator >((aiMeshKey const &)arg2);
7833		jresult = result;
7834		return jresult;
7835		}
7836
7837
7838		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMeshKey(void * jarg1) {
7839		aiMeshKey arg1 = (aiMeshKey ) 0 ;
7840
7841		arg1 = (aiMeshKey *)jarg1;
7842		delete arg1;
7843		}
7844
7845
7846		SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mNodeName_set(void * jarg1, void * jarg2) {
7847		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7848		aiString arg2 = (aiString ) 0 ;
7849
7850		arg1 = (aiNodeAnim *)jarg1;
7851		arg2 = (aiString *)jarg2;
7852		if (arg1) (arg1)->mNodeName = *arg2;
7853		}
7854
7855
7856		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNodeAnim_mNodeName_get(void * jarg1) {
7857		void * jresult ;
7858		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7859		aiString *result = 0 ;
7860
7861		arg1 = (aiNodeAnim *)jarg1;
7862		result = (aiString *)& ((arg1)->mNodeName);
7863		jresult = (void *)result;
7864		return jresult;
7865		}
7866
7867
7868		SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mNumPositionKeys_set(void * jarg1, unsigned int jarg2) {
7869		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7870		unsigned int arg2 ;
7871
7872		arg1 = (aiNodeAnim *)jarg1;
7873		arg2 = (unsigned int)jarg2;
7874		if (arg1) (arg1)->mNumPositionKeys = arg2;
7875		}
7876
7877
7878		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiNodeAnim_mNumPositionKeys_get(void * jarg1) {
7879		unsigned int jresult ;
7880		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7881		unsigned int result;
7882
7883		arg1 = (aiNodeAnim *)jarg1;
7884		result = (unsigned int) ((arg1)->mNumPositionKeys);
7885		jresult = result;
7886		return jresult;
7887		}
7888
7889
7890		SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mNumRotationKeys_set(void * jarg1, unsigned int jarg2) {
7891		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7892		unsigned int arg2 ;
7893
7894		arg1 = (aiNodeAnim *)jarg1;
7895		arg2 = (unsigned int)jarg2;
7896		if (arg1) (arg1)->mNumRotationKeys = arg2;
7897		}
7898
7899
7900		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiNodeAnim_mNumRotationKeys_get(void * jarg1) {
7901		unsigned int jresult ;
7902		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7903		unsigned int result;
7904
7905		arg1 = (aiNodeAnim *)jarg1;
7906		result = (unsigned int) ((arg1)->mNumRotationKeys);
7907		jresult = result;
7908		return jresult;
7909		}
7910
7911
7912		SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mNumScalingKeys_set(void * jarg1, unsigned int jarg2) {
7913		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7914		unsigned int arg2 ;
7915
7916		arg1 = (aiNodeAnim *)jarg1;
7917		arg2 = (unsigned int)jarg2;
7918		if (arg1) (arg1)->mNumScalingKeys = arg2;
7919		}
7920
7921
7922		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiNodeAnim_mNumScalingKeys_get(void * jarg1) {
7923		unsigned int jresult ;
7924		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7925		unsigned int result;
7926
7927		arg1 = (aiNodeAnim *)jarg1;
7928		result = (unsigned int) ((arg1)->mNumScalingKeys);
7929		jresult = result;
7930		return jresult;
7931		}
7932
7933
7934		SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mPreState_set(void * jarg1, int jarg2) {
7935		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7936		aiAnimBehaviour arg2 ;
7937
7938		arg1 = (aiNodeAnim *)jarg1;
7939		arg2 = (aiAnimBehaviour)jarg2;
7940		if (arg1) (arg1)->mPreState = arg2;
7941		}
7942
7943
7944		SWIGEXPORT int SWIGSTDCALL CSharp_aiNodeAnim_mPreState_get(void * jarg1) {
7945		int jresult ;
7946		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7947		aiAnimBehaviour result;
7948
7949		arg1 = (aiNodeAnim *)jarg1;
7950		result = (aiAnimBehaviour) ((arg1)->mPreState);
7951		jresult = result;
7952		return jresult;
7953		}
7954
7955
7956		SWIGEXPORT void SWIGSTDCALL CSharp_aiNodeAnim_mPostState_set(void * jarg1, int jarg2) {
7957		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7958		aiAnimBehaviour arg2 ;
7959
7960		arg1 = (aiNodeAnim *)jarg1;
7961		arg2 = (aiAnimBehaviour)jarg2;
7962		if (arg1) (arg1)->mPostState = arg2;
7963		}
7964
7965
7966		SWIGEXPORT int SWIGSTDCALL CSharp_aiNodeAnim_mPostState_get(void * jarg1) {
7967		int jresult ;
7968		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7969		aiAnimBehaviour result;
7970
7971		arg1 = (aiNodeAnim *)jarg1;
7972		result = (aiAnimBehaviour) ((arg1)->mPostState);
7973		jresult = result;
7974		return jresult;
7975		}
7976
7977
7978		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiNodeAnim() {
7979		void * jresult ;
7980		aiNodeAnim *result = 0 ;
7981
7982		result = (aiNodeAnim *)new aiNodeAnim();
7983		jresult = (void *)result;
7984		return jresult;
7985		}
7986
7987
7988		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiNodeAnim(void * jarg1) {
7989		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7990
7991		arg1 = (aiNodeAnim *)jarg1;
7992		delete arg1;
7993		}
7994
7995
7996		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNodeAnim_GetmPositionKeys(void * jarg1) {
7997		void * jresult ;
7998		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
7999		std::vector< aiVectorKey * > *result = 0 ;
8000
8001		arg1 = (aiNodeAnim *)jarg1;
8002		result = (std::vector< aiVectorKey * > *)aiNodeAnim_GetmPositionKeys(arg1);
8003		jresult = (void *)result;
8004		return jresult;
8005		}
8006
8007
8008		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNodeAnim_GetmRotationKeys(void * jarg1) {
8009		void * jresult ;
8010		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
8011		std::vector< aiQuatKey * > *result = 0 ;
8012
8013		arg1 = (aiNodeAnim *)jarg1;
8014		result = (std::vector< aiQuatKey * > *)aiNodeAnim_GetmRotationKeys(arg1);
8015		jresult = (void *)result;
8016		return jresult;
8017		}
8018
8019
8020		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNodeAnim_GetmScalingKeys(void * jarg1) {
8021		void * jresult ;
8022		aiNodeAnim arg1 = (aiNodeAnim ) 0 ;
8023		std::vector< aiVectorKey * > *result = 0 ;
8024
8025		arg1 = (aiNodeAnim *)jarg1;
8026		result = (std::vector< aiVectorKey * > *)aiNodeAnim_GetmScalingKeys(arg1);
8027		jresult = (void *)result;
8028		return jresult;
8029		}
8030
8031
8032		SWIGEXPORT void SWIGSTDCALL CSharp_aiMeshAnim_mName_set(void * jarg1, void * jarg2) {
8033		aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
8034		aiString arg2 = (aiString ) 0 ;
8035
8036		arg1 = (aiMeshAnim *)jarg1;
8037		arg2 = (aiString *)jarg2;
8038		if (arg1) (arg1)->mName = *arg2;
8039		}
8040
8041
8042		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMeshAnim_mName_get(void * jarg1) {
8043		void * jresult ;
8044		aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
8045		aiString *result = 0 ;
8046
8047		arg1 = (aiMeshAnim *)jarg1;
8048		result = (aiString *)& ((arg1)->mName);
8049		jresult = (void *)result;
8050		return jresult;
8051		}
8052
8053
8054		SWIGEXPORT void SWIGSTDCALL CSharp_aiMeshAnim_mNumKeys_set(void * jarg1, unsigned int jarg2) {
8055		aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
8056		unsigned int arg2 ;
8057
8058		arg1 = (aiMeshAnim *)jarg1;
8059		arg2 = (unsigned int)jarg2;
8060		if (arg1) (arg1)->mNumKeys = arg2;
8061		}
8062
8063
8064		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMeshAnim_mNumKeys_get(void * jarg1) {
8065		unsigned int jresult ;
8066		aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
8067		unsigned int result;
8068
8069		arg1 = (aiMeshAnim *)jarg1;
8070		result = (unsigned int) ((arg1)->mNumKeys);
8071		jresult = result;
8072		return jresult;
8073		}
8074
8075
8076		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMeshAnim() {
8077		void * jresult ;
8078		aiMeshAnim *result = 0 ;
8079
8080		result = (aiMeshAnim *)new aiMeshAnim();
8081		jresult = (void *)result;
8082		return jresult;
8083		}
8084
8085
8086		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMeshAnim(void * jarg1) {
8087		aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
8088
8089		arg1 = (aiMeshAnim *)jarg1;
8090		delete arg1;
8091		}
8092
8093
8094		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMeshAnim_GetmKeys(void * jarg1) {
8095		void * jresult ;
8096		aiMeshAnim arg1 = (aiMeshAnim ) 0 ;
8097		std::vector< aiMeshKey * > *result = 0 ;
8098
8099		arg1 = (aiMeshAnim *)jarg1;
8100		result = (std::vector< aiMeshKey * > *)aiMeshAnim_GetmKeys(arg1);
8101		jresult = (void *)result;
8102		return jresult;
8103		}
8104
8105
8106		SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimation_mName_set(void * jarg1, void * jarg2) {
8107		aiAnimation arg1 = (aiAnimation ) 0 ;
8108		aiString arg2 = (aiString ) 0 ;
8109
8110		arg1 = (aiAnimation *)jarg1;
8111		arg2 = (aiString *)jarg2;
8112		if (arg1) (arg1)->mName = *arg2;
8113		}
8114
8115
8116		SWIGEXPORT void * SWIGSTDCALL CSharp_aiAnimation_mName_get(void * jarg1) {
8117		void * jresult ;
8118		aiAnimation arg1 = (aiAnimation ) 0 ;
8119		aiString *result = 0 ;
8120
8121		arg1 = (aiAnimation *)jarg1;
8122		result = (aiString *)& ((arg1)->mName);
8123		jresult = (void *)result;
8124		return jresult;
8125		}
8126
8127
8128		SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimation_mDuration_set(void * jarg1, double jarg2) {
8129		aiAnimation arg1 = (aiAnimation ) 0 ;
8130		double arg2 ;
8131
8132		arg1 = (aiAnimation *)jarg1;
8133		arg2 = (double)jarg2;
8134		if (arg1) (arg1)->mDuration = arg2;
8135		}
8136
8137
8138		SWIGEXPORT double SWIGSTDCALL CSharp_aiAnimation_mDuration_get(void * jarg1) {
8139		double jresult ;
8140		aiAnimation arg1 = (aiAnimation ) 0 ;
8141		double result;
8142
8143		arg1 = (aiAnimation *)jarg1;
8144		result = (double) ((arg1)->mDuration);
8145		jresult = result;
8146		return jresult;
8147		}
8148
8149
8150		SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimation_mTicksPerSecond_set(void * jarg1, double jarg2) {
8151		aiAnimation arg1 = (aiAnimation ) 0 ;
8152		double arg2 ;
8153
8154		arg1 = (aiAnimation *)jarg1;
8155		arg2 = (double)jarg2;
8156		if (arg1) (arg1)->mTicksPerSecond = arg2;
8157		}
8158
8159
8160		SWIGEXPORT double SWIGSTDCALL CSharp_aiAnimation_mTicksPerSecond_get(void * jarg1) {
8161		double jresult ;
8162		aiAnimation arg1 = (aiAnimation ) 0 ;
8163		double result;
8164
8165		arg1 = (aiAnimation *)jarg1;
8166		result = (double) ((arg1)->mTicksPerSecond);
8167		jresult = result;
8168		return jresult;
8169		}
8170
8171
8172		SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimation_mNumChannels_set(void * jarg1, unsigned int jarg2) {
8173		aiAnimation arg1 = (aiAnimation ) 0 ;
8174		unsigned int arg2 ;
8175
8176		arg1 = (aiAnimation *)jarg1;
8177		arg2 = (unsigned int)jarg2;
8178		if (arg1) (arg1)->mNumChannels = arg2;
8179		}
8180
8181
8182		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimation_mNumChannels_get(void * jarg1) {
8183		unsigned int jresult ;
8184		aiAnimation arg1 = (aiAnimation ) 0 ;
8185		unsigned int result;
8186
8187		arg1 = (aiAnimation *)jarg1;
8188		result = (unsigned int) ((arg1)->mNumChannels);
8189		jresult = result;
8190		return jresult;
8191		}
8192
8193
8194		SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimation_mNumMeshChannels_set(void * jarg1, unsigned int jarg2) {
8195		aiAnimation arg1 = (aiAnimation ) 0 ;
8196		unsigned int arg2 ;
8197
8198		arg1 = (aiAnimation *)jarg1;
8199		arg2 = (unsigned int)jarg2;
8200		if (arg1) (arg1)->mNumMeshChannels = arg2;
8201		}
8202
8203
8204		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimation_mNumMeshChannels_get(void * jarg1) {
8205		unsigned int jresult ;
8206		aiAnimation arg1 = (aiAnimation ) 0 ;
8207		unsigned int result;
8208
8209		arg1 = (aiAnimation *)jarg1;
8210		result = (unsigned int) ((arg1)->mNumMeshChannels);
8211		jresult = result;
8212		return jresult;
8213		}
8214
8215
8216		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiAnimation() {
8217		void * jresult ;
8218		aiAnimation *result = 0 ;
8219
8220		result = (aiAnimation *)new aiAnimation();
8221		jresult = (void *)result;
8222		return jresult;
8223		}
8224
8225
8226		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiAnimation(void * jarg1) {
8227		aiAnimation arg1 = (aiAnimation ) 0 ;
8228
8229		arg1 = (aiAnimation *)jarg1;
8230		delete arg1;
8231		}
8232
8233
8234		SWIGEXPORT void * SWIGSTDCALL CSharp_aiAnimation_GetmChannels(void * jarg1) {
8235		void * jresult ;
8236		aiAnimation arg1 = (aiAnimation ) 0 ;
8237		std::vector< aiNodeAnim * > *result = 0 ;
8238
8239		arg1 = (aiAnimation *)jarg1;
8240		result = (std::vector< aiNodeAnim * > *)aiAnimation_GetmChannels(arg1);
8241		jresult = (void *)result;
8242		return jresult;
8243		}
8244
8245
8246		SWIGEXPORT void * SWIGSTDCALL CSharp_aiAnimation_GetmMeshChannels(void * jarg1) {
8247		void * jresult ;
8248		aiAnimation arg1 = (aiAnimation ) 0 ;
8249		std::vector< aiMeshAnim * > *result = 0 ;
8250
8251		arg1 = (aiAnimation *)jarg1;
8252		result = (std::vector< aiMeshAnim * > *)aiAnimation_GetmMeshChannels(arg1);
8253		jresult = (void *)result;
8254		return jresult;
8255		}
8256
8257
8258		SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_FACE_INDICES_get() {
8259		int jresult ;
8260		int result;
8261
8262		result = (int)(0x7fff);
8263		jresult = result;
8264		return jresult;
8265		}
8266
8267
8268		SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_BONE_WEIGHTS_get() {
8269		int jresult ;
8270		int result;
8271
8272		result = (int)(0x7fffffff);
8273		jresult = result;
8274		return jresult;
8275		}
8276
8277
8278		SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_VERTICES_get() {
8279		int jresult ;
8280		int result;
8281
8282		result = (int)(0x7fffffff);
8283		jresult = result;
8284		return jresult;
8285		}
8286
8287
8288		SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_FACES_get() {
8289		int jresult ;
8290		int result;
8291
8292		result = (int)(0x7fffffff);
8293		jresult = result;
8294		return jresult;
8295		}
8296
8297
8298		SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_NUMBER_OF_COLOR_SETS_get() {
8299		int jresult ;
8300		int result;
8301
8302		result = (int)(0x4);
8303		jresult = result;
8304		return jresult;
8305		}
8306
8307
8308		SWIGEXPORT int SWIGSTDCALL CSharp_AI_MAX_NUMBER_OF_TEXTURECOORDS_get() {
8309		int jresult ;
8310		int result;
8311
8312		result = (int)(0x4);
8313		jresult = result;
8314		return jresult;
8315		}
8316
8317
8318		SWIGEXPORT void SWIGSTDCALL CSharp_aiFace_mNumIndices_set(void * jarg1, unsigned int jarg2) {
8319		aiFace arg1 = (aiFace ) 0 ;
8320		unsigned int arg2 ;
8321
8322		arg1 = (aiFace *)jarg1;
8323		arg2 = (unsigned int)jarg2;
8324		if (arg1) (arg1)->mNumIndices = arg2;
8325		}
8326
8327
8328		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiFace_mNumIndices_get(void * jarg1) {
8329		unsigned int jresult ;
8330		aiFace arg1 = (aiFace ) 0 ;
8331		unsigned int result;
8332
8333		arg1 = (aiFace *)jarg1;
8334		result = (unsigned int) ((arg1)->mNumIndices);
8335		jresult = result;
8336		return jresult;
8337		}
8338
8339
8340		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiFace__SWIG_0() {
8341		void * jresult ;
8342		aiFace *result = 0 ;
8343
8344		result = (aiFace *)new aiFace();
8345		jresult = (void *)result;
8346		return jresult;
8347		}
8348
8349
8350		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiFace(void * jarg1) {
8351		aiFace arg1 = (aiFace ) 0 ;
8352
8353		arg1 = (aiFace *)jarg1;
8354		delete arg1;
8355		}
8356
8357
8358		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiFace__SWIG_1(void * jarg1) {
8359		void * jresult ;
8360		aiFace *arg1 = 0 ;
8361		aiFace *result = 0 ;
8362
8363		arg1 = (aiFace *)jarg1;
8364		if (!arg1) {
8365		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiFace const & type is null", 0);
8366		return 0;
8367		}
8368		result = (aiFace )new aiFace((aiFace const &)arg1);
8369		jresult = (void *)result;
8370		return jresult;
8371		}
8372
8373
8374		SWIGEXPORT void * SWIGSTDCALL CSharp_aiFace___set__(void * jarg1, void * jarg2) {
8375		void * jresult ;
8376		aiFace arg1 = (aiFace ) 0 ;
8377		aiFace *arg2 = 0 ;
8378		aiFace *result = 0 ;
8379
8380		arg1 = (aiFace *)jarg1;
8381		arg2 = (aiFace *)jarg2;
8382		if (!arg2) {
8383		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiFace const & type is null", 0);
8384		return 0;
8385		}
8386		result = (aiFace ) &(arg1)->operator =((aiFace const &)arg2);
8387		jresult = (void *)result;
8388		return jresult;
8389		}
8390
8391
8392		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiFace___equal__(void * jarg1, void * jarg2) {
8393		unsigned int jresult ;
8394		aiFace arg1 = (aiFace ) 0 ;
8395		aiFace *arg2 = 0 ;
8396		bool result;
8397
8398		arg1 = (aiFace *)jarg1;
8399		arg2 = (aiFace *)jarg2;
8400		if (!arg2) {
8401		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiFace const & type is null", 0);
8402		return 0;
8403		}
8404		result = (bool)((aiFace const )arg1)->operator ==((aiFace const &)arg2);
8405		jresult = result;
8406		return jresult;
8407		}
8408
8409
8410		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiFace___nequal__(void * jarg1, void * jarg2) {
8411		unsigned int jresult ;
8412		aiFace arg1 = (aiFace ) 0 ;
8413		aiFace *arg2 = 0 ;
8414		bool result;
8415
8416		arg1 = (aiFace *)jarg1;
8417		arg2 = (aiFace *)jarg2;
8418		if (!arg2) {
8419		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiFace const & type is null", 0);
8420		return 0;
8421		}
8422		result = (bool)((aiFace const )arg1)->operator !=((aiFace const &)arg2);
8423		jresult = result;
8424		return jresult;
8425		}
8426
8427
8428		SWIGEXPORT void * SWIGSTDCALL CSharp_aiFace_GetmIndices(void * jarg1) {
8429		void * jresult ;
8430		aiFace arg1 = (aiFace ) 0 ;
8431		std::vector< unsigned int > *result = 0 ;
8432
8433		arg1 = (aiFace *)jarg1;
8434		result = (std::vector< unsigned int > *)aiFace_GetmIndices(arg1);
8435		jresult = (void *)result;
8436		return jresult;
8437		}
8438
8439
8440		SWIGEXPORT void SWIGSTDCALL CSharp_aiVertexWeight_mVertexId_set(void * jarg1, unsigned int jarg2) {
8441		aiVertexWeight arg1 = (aiVertexWeight ) 0 ;
8442		unsigned int arg2 ;
8443
8444		arg1 = (aiVertexWeight *)jarg1;
8445		arg2 = (unsigned int)jarg2;
8446		if (arg1) (arg1)->mVertexId = arg2;
8447		}
8448
8449
8450		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVertexWeight_mVertexId_get(void * jarg1) {
8451		unsigned int jresult ;
8452		aiVertexWeight arg1 = (aiVertexWeight ) 0 ;
8453		unsigned int result;
8454
8455		arg1 = (aiVertexWeight *)jarg1;
8456		result = (unsigned int) ((arg1)->mVertexId);
8457		jresult = result;
8458		return jresult;
8459		}
8460
8461
8462		SWIGEXPORT void SWIGSTDCALL CSharp_aiVertexWeight_mWeight_set(void * jarg1, float jarg2) {
8463		aiVertexWeight arg1 = (aiVertexWeight ) 0 ;
8464		float arg2 ;
8465
8466		arg1 = (aiVertexWeight *)jarg1;
8467		arg2 = (float)jarg2;
8468		if (arg1) (arg1)->mWeight = arg2;
8469		}
8470
8471
8472		SWIGEXPORT float SWIGSTDCALL CSharp_aiVertexWeight_mWeight_get(void * jarg1) {
8473		float jresult ;
8474		aiVertexWeight arg1 = (aiVertexWeight ) 0 ;
8475		float result;
8476
8477		arg1 = (aiVertexWeight *)jarg1;
8478		result = (float) ((arg1)->mWeight);
8479		jresult = result;
8480		return jresult;
8481		}
8482
8483
8484		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVertexWeight__SWIG_0() {
8485		void * jresult ;
8486		aiVertexWeight *result = 0 ;
8487
8488		result = (aiVertexWeight *)new aiVertexWeight();
8489		jresult = (void *)result;
8490		return jresult;
8491		}
8492
8493
8494		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiVertexWeight__SWIG_1(unsigned int jarg1, float jarg2) {
8495		void * jresult ;
8496		unsigned int arg1 ;
8497		float arg2 ;
8498		aiVertexWeight *result = 0 ;
8499
8500		arg1 = (unsigned int)jarg1;
8501		arg2 = (float)jarg2;
8502		result = (aiVertexWeight *)new aiVertexWeight(arg1,arg2);
8503		jresult = (void *)result;
8504		return jresult;
8505		}
8506
8507
8508		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiVertexWeight(void * jarg1) {
8509		aiVertexWeight arg1 = (aiVertexWeight ) 0 ;
8510
8511		arg1 = (aiVertexWeight *)jarg1;
8512		delete arg1;
8513		}
8514
8515
8516		SWIGEXPORT void SWIGSTDCALL CSharp_aiBone_mName_set(void * jarg1, void * jarg2) {
8517		aiBone arg1 = (aiBone ) 0 ;
8518		aiString arg2 = (aiString ) 0 ;
8519
8520		arg1 = (aiBone *)jarg1;
8521		arg2 = (aiString *)jarg2;
8522		if (arg1) (arg1)->mName = *arg2;
8523		}
8524
8525
8526		SWIGEXPORT void * SWIGSTDCALL CSharp_aiBone_mName_get(void * jarg1) {
8527		void * jresult ;
8528		aiBone arg1 = (aiBone ) 0 ;
8529		aiString *result = 0 ;
8530
8531		arg1 = (aiBone *)jarg1;
8532		result = (aiString *)& ((arg1)->mName);
8533		jresult = (void *)result;
8534		return jresult;
8535		}
8536
8537
8538		SWIGEXPORT void SWIGSTDCALL CSharp_aiBone_mNumWeights_set(void * jarg1, unsigned int jarg2) {
8539		aiBone arg1 = (aiBone ) 0 ;
8540		unsigned int arg2 ;
8541
8542		arg1 = (aiBone *)jarg1;
8543		arg2 = (unsigned int)jarg2;
8544		if (arg1) (arg1)->mNumWeights = arg2;
8545		}
8546
8547
8548		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiBone_mNumWeights_get(void * jarg1) {
8549		unsigned int jresult ;
8550		aiBone arg1 = (aiBone ) 0 ;
8551		unsigned int result;
8552
8553		arg1 = (aiBone *)jarg1;
8554		result = (unsigned int) ((arg1)->mNumWeights);
8555		jresult = result;
8556		return jresult;
8557		}
8558
8559
8560		SWIGEXPORT void SWIGSTDCALL CSharp_aiBone_mOffsetMatrix_set(void * jarg1, void * jarg2) {
8561		aiBone arg1 = (aiBone ) 0 ;
8562		aiMatrix4x4 arg2 = (aiMatrix4x4 ) 0 ;
8563
8564		arg1 = (aiBone *)jarg1;
8565		arg2 = (aiMatrix4x4 *)jarg2;
8566		if (arg1) (arg1)->mOffsetMatrix = *arg2;
8567		}
8568
8569
8570		SWIGEXPORT void * SWIGSTDCALL CSharp_aiBone_mOffsetMatrix_get(void * jarg1) {
8571		void * jresult ;
8572		aiBone arg1 = (aiBone ) 0 ;
8573		aiMatrix4x4 *result = 0 ;
8574
8575		arg1 = (aiBone *)jarg1;
8576		result = (aiMatrix4x4 *)& ((arg1)->mOffsetMatrix);
8577		jresult = (void *)result;
8578		return jresult;
8579		}
8580
8581
8582		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiBone__SWIG_0() {
8583		void * jresult ;
8584		aiBone *result = 0 ;
8585
8586		result = (aiBone *)new aiBone();
8587		jresult = (void *)result;
8588		return jresult;
8589		}
8590
8591
8592		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiBone__SWIG_1(void * jarg1) {
8593		void * jresult ;
8594		aiBone *arg1 = 0 ;
8595		aiBone *result = 0 ;
8596
8597		arg1 = (aiBone *)jarg1;
8598		if (!arg1) {
8599		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiBone const & type is null", 0);
8600		return 0;
8601		}
8602		result = (aiBone )new aiBone((aiBone const &)arg1);
8603		jresult = (void *)result;
8604		return jresult;
8605		}
8606
8607
8608		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiBone(void * jarg1) {
8609		aiBone arg1 = (aiBone ) 0 ;
8610
8611		arg1 = (aiBone *)jarg1;
8612		delete arg1;
8613		}
8614
8615
8616		SWIGEXPORT void * SWIGSTDCALL CSharp_aiBone_GetmWeights(void * jarg1) {
8617		void * jresult ;
8618		aiBone arg1 = (aiBone ) 0 ;
8619		std::vector< aiVertexWeight * > *result = 0 ;
8620
8621		arg1 = (aiBone *)jarg1;
8622		result = (std::vector< aiVertexWeight * > *)aiBone_GetmWeights(arg1);
8623		jresult = (void *)result;
8624		return jresult;
8625		}
8626
8627
8628		SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimMesh_mBitangents_set(void * jarg1, void * jarg2) {
8629		aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
8630		aiVector3D arg2 = (aiVector3D ) 0 ;
8631
8632		arg1 = (aiAnimMesh *)jarg1;
8633		arg2 = (aiVector3D *)jarg2;
8634		if (arg1) (arg1)->mBitangents = arg2;
8635		}
8636
8637
8638		SWIGEXPORT void * SWIGSTDCALL CSharp_aiAnimMesh_mBitangents_get(void * jarg1) {
8639		void * jresult ;
8640		aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
8641		aiVector3D *result = 0 ;
8642
8643		arg1 = (aiAnimMesh *)jarg1;
8644		result = (aiVector3D *) ((arg1)->mBitangents);
8645		jresult = (void *)result;
8646		return jresult;
8647		}
8648
8649
8650		SWIGEXPORT void SWIGSTDCALL CSharp_aiAnimMesh_mNumVertices_set(void * jarg1, unsigned int jarg2) {
8651		aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
8652		unsigned int arg2 ;
8653
8654		arg1 = (aiAnimMesh *)jarg1;
8655		arg2 = (unsigned int)jarg2;
8656		if (arg1) (arg1)->mNumVertices = arg2;
8657		}
8658
8659
8660		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_mNumVertices_get(void * jarg1) {
8661		unsigned int jresult ;
8662		aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
8663		unsigned int result;
8664
8665		arg1 = (aiAnimMesh *)jarg1;
8666		result = (unsigned int) ((arg1)->mNumVertices);
8667		jresult = result;
8668		return jresult;
8669		}
8670
8671
8672		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiAnimMesh() {
8673		void * jresult ;
8674		aiAnimMesh *result = 0 ;
8675
8676		result = (aiAnimMesh *)new aiAnimMesh();
8677		jresult = (void *)result;
8678		return jresult;
8679		}
8680
8681
8682		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiAnimMesh(void * jarg1) {
8683		aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
8684
8685		arg1 = (aiAnimMesh *)jarg1;
8686		delete arg1;
8687		}
8688
8689
8690		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_HasPositions(void * jarg1) {
8691		unsigned int jresult ;
8692		aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
8693		bool result;
8694
8695		arg1 = (aiAnimMesh *)jarg1;
8696		result = (bool)((aiAnimMesh const *)arg1)->HasPositions();
8697		jresult = result;
8698		return jresult;
8699		}
8700
8701
8702		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_HasNormals(void * jarg1) {
8703		unsigned int jresult ;
8704		aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
8705		bool result;
8706
8707		arg1 = (aiAnimMesh *)jarg1;
8708		result = (bool)((aiAnimMesh const *)arg1)->HasNormals();
8709		jresult = result;
8710		return jresult;
8711		}
8712
8713
8714		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_HasTangentsAndBitangents(void * jarg1) {
8715		unsigned int jresult ;
8716		aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
8717		bool result;
8718
8719		arg1 = (aiAnimMesh *)jarg1;
8720		result = (bool)((aiAnimMesh const *)arg1)->HasTangentsAndBitangents();
8721		jresult = result;
8722		return jresult;
8723		}
8724
8725
8726		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_HasVertexColors(void * jarg1, unsigned int jarg2) {
8727		unsigned int jresult ;
8728		aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
8729		unsigned int arg2 ;
8730		bool result;
8731
8732		arg1 = (aiAnimMesh *)jarg1;
8733		arg2 = (unsigned int)jarg2;
8734		result = (bool)((aiAnimMesh const *)arg1)->HasVertexColors(arg2);
8735		jresult = result;
8736		return jresult;
8737		}
8738
8739
8740		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiAnimMesh_HasTextureCoords(void * jarg1, unsigned int jarg2) {
8741		unsigned int jresult ;
8742		aiAnimMesh arg1 = (aiAnimMesh ) 0 ;
8743		unsigned int arg2 ;
8744		bool result;
8745
8746		arg1 = (aiAnimMesh *)jarg1;
8747		arg2 = (unsigned int)jarg2;
8748		result = (bool)((aiAnimMesh const *)arg1)->HasTextureCoords(arg2);
8749		jresult = result;
8750		return jresult;
8751		}
8752
8753
8754		SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mPrimitiveTypes_set(void * jarg1, unsigned int jarg2) {
8755		aiMesh arg1 = (aiMesh ) 0 ;
8756		unsigned int arg2 ;
8757
8758		arg1 = (aiMesh *)jarg1;
8759		arg2 = (unsigned int)jarg2;
8760		if (arg1) (arg1)->mPrimitiveTypes = arg2;
8761		}
8762
8763
8764		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mPrimitiveTypes_get(void * jarg1) {
8765		unsigned int jresult ;
8766		aiMesh arg1 = (aiMesh ) 0 ;
8767		unsigned int result;
8768
8769		arg1 = (aiMesh *)jarg1;
8770		result = (unsigned int) ((arg1)->mPrimitiveTypes);
8771		jresult = result;
8772		return jresult;
8773		}
8774
8775
8776		SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mNumVertices_set(void * jarg1, unsigned int jarg2) {
8777		aiMesh arg1 = (aiMesh ) 0 ;
8778		unsigned int arg2 ;
8779
8780		arg1 = (aiMesh *)jarg1;
8781		arg2 = (unsigned int)jarg2;
8782		if (arg1) (arg1)->mNumVertices = arg2;
8783		}
8784
8785
8786		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mNumVertices_get(void * jarg1) {
8787		unsigned int jresult ;
8788		aiMesh arg1 = (aiMesh ) 0 ;
8789		unsigned int result;
8790
8791		arg1 = (aiMesh *)jarg1;
8792		result = (unsigned int) ((arg1)->mNumVertices);
8793		jresult = result;
8794		return jresult;
8795		}
8796
8797
8798		SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mNumFaces_set(void * jarg1, unsigned int jarg2) {
8799		aiMesh arg1 = (aiMesh ) 0 ;
8800		unsigned int arg2 ;
8801
8802		arg1 = (aiMesh *)jarg1;
8803		arg2 = (unsigned int)jarg2;
8804		if (arg1) (arg1)->mNumFaces = arg2;
8805		}
8806
8807
8808		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mNumFaces_get(void * jarg1) {
8809		unsigned int jresult ;
8810		aiMesh arg1 = (aiMesh ) 0 ;
8811		unsigned int result;
8812
8813		arg1 = (aiMesh *)jarg1;
8814		result = (unsigned int) ((arg1)->mNumFaces);
8815		jresult = result;
8816		return jresult;
8817		}
8818
8819
8820		SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mNumBones_set(void * jarg1, unsigned int jarg2) {
8821		aiMesh arg1 = (aiMesh ) 0 ;
8822		unsigned int arg2 ;
8823
8824		arg1 = (aiMesh *)jarg1;
8825		arg2 = (unsigned int)jarg2;
8826		if (arg1) (arg1)->mNumBones = arg2;
8827		}
8828
8829
8830		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mNumBones_get(void * jarg1) {
8831		unsigned int jresult ;
8832		aiMesh arg1 = (aiMesh ) 0 ;
8833		unsigned int result;
8834
8835		arg1 = (aiMesh *)jarg1;
8836		result = (unsigned int) ((arg1)->mNumBones);
8837		jresult = result;
8838		return jresult;
8839		}
8840
8841
8842		SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mMaterialIndex_set(void * jarg1, unsigned int jarg2) {
8843		aiMesh arg1 = (aiMesh ) 0 ;
8844		unsigned int arg2 ;
8845
8846		arg1 = (aiMesh *)jarg1;
8847		arg2 = (unsigned int)jarg2;
8848		if (arg1) (arg1)->mMaterialIndex = arg2;
8849		}
8850
8851
8852		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mMaterialIndex_get(void * jarg1) {
8853		unsigned int jresult ;
8854		aiMesh arg1 = (aiMesh ) 0 ;
8855		unsigned int result;
8856
8857		arg1 = (aiMesh *)jarg1;
8858		result = (unsigned int) ((arg1)->mMaterialIndex);
8859		jresult = result;
8860		return jresult;
8861		}
8862
8863
8864		SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mName_set(void * jarg1, void * jarg2) {
8865		aiMesh arg1 = (aiMesh ) 0 ;
8866		aiString arg2 = (aiString ) 0 ;
8867
8868		arg1 = (aiMesh *)jarg1;
8869		arg2 = (aiString *)jarg2;
8870		if (arg1) (arg1)->mName = *arg2;
8871		}
8872
8873
8874		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_mName_get(void * jarg1) {
8875		void * jresult ;
8876		aiMesh arg1 = (aiMesh ) 0 ;
8877		aiString *result = 0 ;
8878
8879		arg1 = (aiMesh *)jarg1;
8880		result = (aiString *)& ((arg1)->mName);
8881		jresult = (void *)result;
8882		return jresult;
8883		}
8884
8885
8886		SWIGEXPORT void SWIGSTDCALL CSharp_aiMesh_mNumAnimMeshes_set(void * jarg1, unsigned int jarg2) {
8887		aiMesh arg1 = (aiMesh ) 0 ;
8888		unsigned int arg2 ;
8889
8890		arg1 = (aiMesh *)jarg1;
8891		arg2 = (unsigned int)jarg2;
8892		if (arg1) (arg1)->mNumAnimMeshes = arg2;
8893		}
8894
8895
8896		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_mNumAnimMeshes_get(void * jarg1) {
8897		unsigned int jresult ;
8898		aiMesh arg1 = (aiMesh ) 0 ;
8899		unsigned int result;
8900
8901		arg1 = (aiMesh *)jarg1;
8902		result = (unsigned int) ((arg1)->mNumAnimMeshes);
8903		jresult = result;
8904		return jresult;
8905		}
8906
8907
8908		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMesh() {
8909		void * jresult ;
8910		aiMesh *result = 0 ;
8911
8912		result = (aiMesh *)new aiMesh();
8913		jresult = (void *)result;
8914		return jresult;
8915		}
8916
8917
8918		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMesh(void * jarg1) {
8919		aiMesh arg1 = (aiMesh ) 0 ;
8920
8921		arg1 = (aiMesh *)jarg1;
8922		delete arg1;
8923		}
8924
8925
8926		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasPositions(void * jarg1) {
8927		unsigned int jresult ;
8928		aiMesh arg1 = (aiMesh ) 0 ;
8929		bool result;
8930
8931		arg1 = (aiMesh *)jarg1;
8932		result = (bool)((aiMesh const *)arg1)->HasPositions();
8933		jresult = result;
8934		return jresult;
8935		}
8936
8937
8938		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasFaces(void * jarg1) {
8939		unsigned int jresult ;
8940		aiMesh arg1 = (aiMesh ) 0 ;
8941		bool result;
8942
8943		arg1 = (aiMesh *)jarg1;
8944		result = (bool)((aiMesh const *)arg1)->HasFaces();
8945		jresult = result;
8946		return jresult;
8947		}
8948
8949
8950		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasNormals(void * jarg1) {
8951		unsigned int jresult ;
8952		aiMesh arg1 = (aiMesh ) 0 ;
8953		bool result;
8954
8955		arg1 = (aiMesh *)jarg1;
8956		result = (bool)((aiMesh const *)arg1)->HasNormals();
8957		jresult = result;
8958		return jresult;
8959		}
8960
8961
8962		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasTangentsAndBitangents(void * jarg1) {
8963		unsigned int jresult ;
8964		aiMesh arg1 = (aiMesh ) 0 ;
8965		bool result;
8966
8967		arg1 = (aiMesh *)jarg1;
8968		result = (bool)((aiMesh const *)arg1)->HasTangentsAndBitangents();
8969		jresult = result;
8970		return jresult;
8971		}
8972
8973
8974		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasVertexColors(void * jarg1, unsigned int jarg2) {
8975		unsigned int jresult ;
8976		aiMesh arg1 = (aiMesh ) 0 ;
8977		unsigned int arg2 ;
8978		bool result;
8979
8980		arg1 = (aiMesh *)jarg1;
8981		arg2 = (unsigned int)jarg2;
8982		result = (bool)((aiMesh const *)arg1)->HasVertexColors(arg2);
8983		jresult = result;
8984		return jresult;
8985		}
8986
8987
8988		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasTextureCoords(void * jarg1, unsigned int jarg2) {
8989		unsigned int jresult ;
8990		aiMesh arg1 = (aiMesh ) 0 ;
8991		unsigned int arg2 ;
8992		bool result;
8993
8994		arg1 = (aiMesh *)jarg1;
8995		arg2 = (unsigned int)jarg2;
8996		result = (bool)((aiMesh const *)arg1)->HasTextureCoords(arg2);
8997		jresult = result;
8998		return jresult;
8999		}
9000
9001
9002		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_GetNumUVChannels(void * jarg1) {
9003		unsigned int jresult ;
9004		aiMesh arg1 = (aiMesh ) 0 ;
9005		unsigned int result;
9006
9007		arg1 = (aiMesh *)jarg1;
9008		result = (unsigned int)((aiMesh const *)arg1)->GetNumUVChannels();
9009		jresult = result;
9010		return jresult;
9011		}
9012
9013
9014		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_GetNumColorChannels(void * jarg1) {
9015		unsigned int jresult ;
9016		aiMesh arg1 = (aiMesh ) 0 ;
9017		unsigned int result;
9018
9019		arg1 = (aiMesh *)jarg1;
9020		result = (unsigned int)((aiMesh const *)arg1)->GetNumColorChannels();
9021		jresult = result;
9022		return jresult;
9023		}
9024
9025
9026		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMesh_HasBones(void * jarg1) {
9027		unsigned int jresult ;
9028		aiMesh arg1 = (aiMesh ) 0 ;
9029		bool result;
9030
9031		arg1 = (aiMesh *)jarg1;
9032		result = (bool)((aiMesh const *)arg1)->HasBones();
9033		jresult = result;
9034		return jresult;
9035		}
9036
9037
9038		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmAnimMeshes(void * jarg1) {
9039		void * jresult ;
9040		aiMesh arg1 = (aiMesh ) 0 ;
9041		std::vector< aiAnimMesh * > *result = 0 ;
9042
9043		arg1 = (aiMesh *)jarg1;
9044		result = (std::vector< aiAnimMesh * > *)aiMesh_GetmAnimMeshes(arg1);
9045		jresult = (void *)result;
9046		return jresult;
9047		}
9048
9049
9050		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmBitangents(void * jarg1) {
9051		void * jresult ;
9052		aiMesh arg1 = (aiMesh ) 0 ;
9053		std::vector< aiVector3D * > *result = 0 ;
9054
9055		arg1 = (aiMesh *)jarg1;
9056		result = (std::vector< aiVector3D * > *)aiMesh_GetmBitangents(arg1);
9057		jresult = (void *)result;
9058		return jresult;
9059		}
9060
9061
9062		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmBones(void * jarg1) {
9063		void * jresult ;
9064		aiMesh arg1 = (aiMesh ) 0 ;
9065		std::vector< aiBone * > *result = 0 ;
9066
9067		arg1 = (aiMesh *)jarg1;
9068		result = (std::vector< aiBone * > *)aiMesh_GetmBones(arg1);
9069		jresult = (void *)result;
9070		return jresult;
9071		}
9072
9073
9074		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmColors(void * jarg1) {
9075		void * jresult ;
9076		aiMesh arg1 = (aiMesh ) 0 ;
9077		std::vector< std::vector< aiColor4D * > > *result = 0 ;
9078
9079		arg1 = (aiMesh *)jarg1;
9080		result = (std::vector< std::vector< aiColor4D * > > *)aiMesh_GetmColors(arg1);
9081		jresult = (void *)result;
9082		return jresult;
9083		}
9084
9085
9086		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmFaces(void * jarg1) {
9087		void * jresult ;
9088		aiMesh arg1 = (aiMesh ) 0 ;
9089		std::vector< aiFace * > *result = 0 ;
9090
9091		arg1 = (aiMesh *)jarg1;
9092		result = (std::vector< aiFace * > *)aiMesh_GetmFaces(arg1);
9093		jresult = (void *)result;
9094		return jresult;
9095		}
9096
9097
9098		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmNormals(void * jarg1) {
9099		void * jresult ;
9100		aiMesh arg1 = (aiMesh ) 0 ;
9101		std::vector< aiVector3D * > *result = 0 ;
9102
9103		arg1 = (aiMesh *)jarg1;
9104		result = (std::vector< aiVector3D * > *)aiMesh_GetmNormals(arg1);
9105		jresult = (void *)result;
9106		return jresult;
9107		}
9108
9109
9110		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmTangents(void * jarg1) {
9111		void * jresult ;
9112		aiMesh arg1 = (aiMesh ) 0 ;
9113		std::vector< aiVector3D * > *result = 0 ;
9114
9115		arg1 = (aiMesh *)jarg1;
9116		result = (std::vector< aiVector3D * > *)aiMesh_GetmTangents(arg1);
9117		jresult = (void *)result;
9118		return jresult;
9119		}
9120
9121
9122		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmTextureCoords(void * jarg1) {
9123		void * jresult ;
9124		aiMesh arg1 = (aiMesh ) 0 ;
9125		std::vector< std::vector< aiVector3D * > > *result = 0 ;
9126
9127		arg1 = (aiMesh *)jarg1;
9128		result = (std::vector< std::vector< aiVector3D * > > *)aiMesh_GetmTextureCoords(arg1);
9129		jresult = (void *)result;
9130		return jresult;
9131		}
9132
9133
9134		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmNumUVComponents(void * jarg1) {
9135		void * jresult ;
9136		aiMesh arg1 = (aiMesh ) 0 ;
9137		std::vector< unsigned int > *result = 0 ;
9138
9139		arg1 = (aiMesh *)jarg1;
9140		result = (std::vector< unsigned int > *)aiMesh_GetmNumUVComponents(arg1);
9141		jresult = (void *)result;
9142		return jresult;
9143		}
9144
9145
9146		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMesh_GetmVertices(void * jarg1) {
9147		void * jresult ;
9148		aiMesh arg1 = (aiMesh ) 0 ;
9149		std::vector< aiVector3D * > *result = 0 ;
9150
9151		arg1 = (aiMesh *)jarg1;
9152		result = (std::vector< aiVector3D * > *)aiMesh_GetmVertices(arg1);
9153		jresult = (void *)result;
9154		return jresult;
9155		}
9156
9157
9158		SWIGEXPORT char * SWIGSTDCALL CSharp_AI_DEFAULT_MATERIAL_NAME_get() {
9159		char * jresult ;
9160		char *result = 0 ;
9161
9162		result = (char *)("DefaultMaterial");
9163		jresult = SWIG_csharp_string_callback((const char *)result);
9164		return jresult;
9165		}
9166
9167
9168		SWIGEXPORT char * SWIGSTDCALL CSharp_AI_DEFAULT_TEXTURED_MATERIAL_NAME_get() {
9169		char * jresult ;
9170		char *result = 0 ;
9171
9172		result = (char *)("TexturedDefaultMaterial");
9173		jresult = SWIG_csharp_string_callback((const char *)result);
9174		return jresult;
9175		}
9176
9177
9178		SWIGEXPORT void SWIGSTDCALL CSharp_aiUVTransform_mTranslation_set(void * jarg1, void * jarg2) {
9179		aiUVTransform arg1 = (aiUVTransform ) 0 ;
9180		aiVector2D arg2 = (aiVector2D ) 0 ;
9181
9182		arg1 = (aiUVTransform *)jarg1;
9183		arg2 = (aiVector2D *)jarg2;
9184		if (arg1) (arg1)->mTranslation = *arg2;
9185		}
9186
9187
9188		SWIGEXPORT void * SWIGSTDCALL CSharp_aiUVTransform_mTranslation_get(void * jarg1) {
9189		void * jresult ;
9190		aiUVTransform arg1 = (aiUVTransform ) 0 ;
9191		aiVector2D *result = 0 ;
9192
9193		arg1 = (aiUVTransform *)jarg1;
9194		result = (aiVector2D *)& ((arg1)->mTranslation);
9195		jresult = (void *)result;
9196		return jresult;
9197		}
9198
9199
9200		SWIGEXPORT void SWIGSTDCALL CSharp_aiUVTransform_mScaling_set(void * jarg1, void * jarg2) {
9201		aiUVTransform arg1 = (aiUVTransform ) 0 ;
9202		aiVector2D arg2 = (aiVector2D ) 0 ;
9203
9204		arg1 = (aiUVTransform *)jarg1;
9205		arg2 = (aiVector2D *)jarg2;
9206		if (arg1) (arg1)->mScaling = *arg2;
9207		}
9208
9209
9210		SWIGEXPORT void * SWIGSTDCALL CSharp_aiUVTransform_mScaling_get(void * jarg1) {
9211		void * jresult ;
9212		aiUVTransform arg1 = (aiUVTransform ) 0 ;
9213		aiVector2D *result = 0 ;
9214
9215		arg1 = (aiUVTransform *)jarg1;
9216		result = (aiVector2D *)& ((arg1)->mScaling);
9217		jresult = (void *)result;
9218		return jresult;
9219		}
9220
9221
9222		SWIGEXPORT void SWIGSTDCALL CSharp_aiUVTransform_mRotation_set(void * jarg1, float jarg2) {
9223		aiUVTransform arg1 = (aiUVTransform ) 0 ;
9224		float arg2 ;
9225
9226		arg1 = (aiUVTransform *)jarg1;
9227		arg2 = (float)jarg2;
9228		if (arg1) (arg1)->mRotation = arg2;
9229		}
9230
9231
9232		SWIGEXPORT float SWIGSTDCALL CSharp_aiUVTransform_mRotation_get(void * jarg1) {
9233		float jresult ;
9234		aiUVTransform arg1 = (aiUVTransform ) 0 ;
9235		float result;
9236
9237		arg1 = (aiUVTransform *)jarg1;
9238		result = (float) ((arg1)->mRotation);
9239		jresult = result;
9240		return jresult;
9241		}
9242
9243
9244		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiUVTransform() {
9245		void * jresult ;
9246		aiUVTransform *result = 0 ;
9247
9248		result = (aiUVTransform *)new aiUVTransform();
9249		jresult = (void *)result;
9250		return jresult;
9251		}
9252
9253
9254		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiUVTransform(void * jarg1) {
9255		aiUVTransform arg1 = (aiUVTransform ) 0 ;
9256
9257		arg1 = (aiUVTransform *)jarg1;
9258		delete arg1;
9259		}
9260
9261
9262		SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mKey_set(void * jarg1, void * jarg2) {
9263		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9264		aiString arg2 = (aiString ) 0 ;
9265
9266		arg1 = (aiMaterialProperty *)jarg1;
9267		arg2 = (aiString *)jarg2;
9268		if (arg1) (arg1)->mKey = *arg2;
9269		}
9270
9271
9272		SWIGEXPORT void * SWIGSTDCALL CSharp_aiMaterialProperty_mKey_get(void * jarg1) {
9273		void * jresult ;
9274		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9275		aiString *result = 0 ;
9276
9277		arg1 = (aiMaterialProperty *)jarg1;
9278		result = (aiString *)& ((arg1)->mKey);
9279		jresult = (void *)result;
9280		return jresult;
9281		}
9282
9283
9284		SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mSemantic_set(void * jarg1, unsigned int jarg2) {
9285		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9286		unsigned int arg2 ;
9287
9288		arg1 = (aiMaterialProperty *)jarg1;
9289		arg2 = (unsigned int)jarg2;
9290		if (arg1) (arg1)->mSemantic = arg2;
9291		}
9292
9293
9294		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterialProperty_mSemantic_get(void * jarg1) {
9295		unsigned int jresult ;
9296		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9297		unsigned int result;
9298
9299		arg1 = (aiMaterialProperty *)jarg1;
9300		result = (unsigned int) ((arg1)->mSemantic);
9301		jresult = result;
9302		return jresult;
9303		}
9304
9305
9306		SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mIndex_set(void * jarg1, unsigned int jarg2) {
9307		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9308		unsigned int arg2 ;
9309
9310		arg1 = (aiMaterialProperty *)jarg1;
9311		arg2 = (unsigned int)jarg2;
9312		if (arg1) (arg1)->mIndex = arg2;
9313		}
9314
9315
9316		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterialProperty_mIndex_get(void * jarg1) {
9317		unsigned int jresult ;
9318		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9319		unsigned int result;
9320
9321		arg1 = (aiMaterialProperty *)jarg1;
9322		result = (unsigned int) ((arg1)->mIndex);
9323		jresult = result;
9324		return jresult;
9325		}
9326
9327
9328		SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mDataLength_set(void * jarg1, unsigned int jarg2) {
9329		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9330		unsigned int arg2 ;
9331
9332		arg1 = (aiMaterialProperty *)jarg1;
9333		arg2 = (unsigned int)jarg2;
9334		if (arg1) (arg1)->mDataLength = arg2;
9335		}
9336
9337
9338		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterialProperty_mDataLength_get(void * jarg1) {
9339		unsigned int jresult ;
9340		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9341		unsigned int result;
9342
9343		arg1 = (aiMaterialProperty *)jarg1;
9344		result = (unsigned int) ((arg1)->mDataLength);
9345		jresult = result;
9346		return jresult;
9347		}
9348
9349
9350		SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mType_set(void * jarg1, int jarg2) {
9351		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9352		aiPropertyTypeInfo arg2 ;
9353
9354		arg1 = (aiMaterialProperty *)jarg1;
9355		arg2 = (aiPropertyTypeInfo)jarg2;
9356		if (arg1) (arg1)->mType = arg2;
9357		}
9358
9359
9360		SWIGEXPORT int SWIGSTDCALL CSharp_aiMaterialProperty_mType_get(void * jarg1) {
9361		int jresult ;
9362		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9363		aiPropertyTypeInfo result;
9364
9365		arg1 = (aiMaterialProperty *)jarg1;
9366		result = (aiPropertyTypeInfo) ((arg1)->mType);
9367		jresult = result;
9368		return jresult;
9369		}
9370
9371
9372		SWIGEXPORT void SWIGSTDCALL CSharp_aiMaterialProperty_mData_set(void * jarg1, char * jarg2) {
9373		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9374		char arg2 = (char ) 0 ;
9375
9376		arg1 = (aiMaterialProperty *)jarg1;
9377		arg2 = (char *)jarg2;
9378		{
9379		if (arg1->mData) delete [] arg1->mData;
9380		if (arg2) {
9381		arg1->mData = (char ) (new char[strlen((const char )arg2)+1]);
9382		strcpy((char )arg1->mData, (const char )arg2);
9383		} else {
9384		arg1->mData = 0;
9385		}
9386		}
9387		}
9388
9389
9390		SWIGEXPORT char * SWIGSTDCALL CSharp_aiMaterialProperty_mData_get(void * jarg1) {
9391		char * jresult ;
9392		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9393		char *result = 0 ;
9394
9395		arg1 = (aiMaterialProperty *)jarg1;
9396		result = (char *) ((arg1)->mData);
9397		jresult = SWIG_csharp_string_callback((const char *)result);
9398		return jresult;
9399		}
9400
9401
9402		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMaterialProperty() {
9403		void * jresult ;
9404		aiMaterialProperty *result = 0 ;
9405
9406		result = (aiMaterialProperty *)new aiMaterialProperty();
9407		jresult = (void *)result;
9408		return jresult;
9409		}
9410
9411
9412		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMaterialProperty(void * jarg1) {
9413		aiMaterialProperty arg1 = (aiMaterialProperty ) 0 ;
9414
9415		arg1 = (aiMaterialProperty *)jarg1;
9416		delete arg1;
9417		}
9418
9419
9420		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiMaterial() {
9421		void * jresult ;
9422		aiMaterial *result = 0 ;
9423
9424		result = (aiMaterial *)new aiMaterial();
9425		jresult = (void *)result;
9426		return jresult;
9427		}
9428
9429
9430		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiMaterial(void * jarg1) {
9431		aiMaterial arg1 = (aiMaterial ) 0 ;
9432
9433		arg1 = (aiMaterial *)jarg1;
9434		delete arg1;
9435		}
9436
9437
9438		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureCount(void * jarg1, int jarg2) {
9439		unsigned int jresult ;
9440		aiMaterial arg1 = (aiMaterial ) 0 ;
9441		aiTextureType arg2 ;
9442		unsigned int result;
9443
9444		arg1 = (aiMaterial *)jarg1;
9445		arg2 = (aiTextureType)jarg2;
9446		result = (unsigned int)((aiMaterial const *)arg1)->GetTextureCount(arg2);
9447		jresult = result;
9448		return jresult;
9449		}
9450
9451
9452		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetDiffuse(void * jarg1, void * jarg2) {
9453		unsigned int jresult ;
9454		aiMaterial arg1 = (aiMaterial ) 0 ;
9455		aiColor4D arg2 = (aiColor4D ) 0 ;
9456		bool result;
9457
9458		arg1 = (aiMaterial *)jarg1;
9459		arg2 = (aiColor4D *)jarg2;
9460		result = (bool)aiMaterial_GetDiffuse(arg1,arg2);
9461		jresult = result;
9462		return jresult;
9463		}
9464
9465
9466		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetSpecular(void * jarg1, void * jarg2) {
9467		unsigned int jresult ;
9468		aiMaterial arg1 = (aiMaterial ) 0 ;
9469		aiColor4D arg2 = (aiColor4D ) 0 ;
9470		bool result;
9471
9472		arg1 = (aiMaterial *)jarg1;
9473		arg2 = (aiColor4D *)jarg2;
9474		result = (bool)aiMaterial_GetSpecular(arg1,arg2);
9475		jresult = result;
9476		return jresult;
9477		}
9478
9479
9480		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetAmbient(void * jarg1, void * jarg2) {
9481		unsigned int jresult ;
9482		aiMaterial arg1 = (aiMaterial ) 0 ;
9483		aiColor4D arg2 = (aiColor4D ) 0 ;
9484		bool result;
9485
9486		arg1 = (aiMaterial *)jarg1;
9487		arg2 = (aiColor4D *)jarg2;
9488		result = (bool)aiMaterial_GetAmbient(arg1,arg2);
9489		jresult = result;
9490		return jresult;
9491		}
9492
9493
9494		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetEmissive(void * jarg1, void * jarg2) {
9495		unsigned int jresult ;
9496		aiMaterial arg1 = (aiMaterial ) 0 ;
9497		aiColor4D arg2 = (aiColor4D ) 0 ;
9498		bool result;
9499
9500		arg1 = (aiMaterial *)jarg1;
9501		arg2 = (aiColor4D *)jarg2;
9502		result = (bool)aiMaterial_GetEmissive(arg1,arg2);
9503		jresult = result;
9504		return jresult;
9505		}
9506
9507
9508		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetOpacity(void * jarg1, float * jarg2) {
9509		unsigned int jresult ;
9510		aiMaterial arg1 = (aiMaterial ) 0 ;
9511		float arg2 = (float ) 0 ;
9512		bool result;
9513
9514		arg1 = (aiMaterial *)jarg1;
9515		arg2 = (float *)jarg2;
9516		result = (bool)aiMaterial_GetOpacity(arg1,arg2);
9517		jresult = result;
9518		return jresult;
9519		}
9520
9521
9522		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetShininessStrength(void * jarg1, float * jarg2) {
9523		unsigned int jresult ;
9524		aiMaterial arg1 = (aiMaterial ) 0 ;
9525		float arg2 = (float ) 0 ;
9526		bool result;
9527
9528		arg1 = (aiMaterial *)jarg1;
9529		arg2 = (float *)jarg2;
9530		result = (bool)aiMaterial_GetShininessStrength(arg1,arg2);
9531		jresult = result;
9532		return jresult;
9533		}
9534
9535
9536		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetShadingModel(void * jarg1, int * jarg2) {
9537		unsigned int jresult ;
9538		aiMaterial arg1 = (aiMaterial ) 0 ;
9539		int arg2 = (int ) 0 ;
9540		bool result;
9541
9542		arg1 = (aiMaterial *)jarg1;
9543		arg2 = (int *)jarg2;
9544		result = (bool)aiMaterial_GetShadingModel(arg1,arg2);
9545		jresult = result;
9546		return jresult;
9547		}
9548
9549
9550		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTexFlagsDiffuse0(void * jarg1, int * jarg2) {
9551		unsigned int jresult ;
9552		aiMaterial arg1 = (aiMaterial ) 0 ;
9553		int arg2 = (int ) 0 ;
9554		bool result;
9555
9556		arg1 = (aiMaterial *)jarg1;
9557		arg2 = (int *)jarg2;
9558		result = (bool)aiMaterial_GetTexFlagsDiffuse0(arg1,arg2);
9559		jresult = result;
9560		return jresult;
9561		}
9562
9563
9564		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetMappingModeUDiffuse0(void * jarg1, int * jarg2) {
9565		unsigned int jresult ;
9566		aiMaterial arg1 = (aiMaterial ) 0 ;
9567		int arg2 = (int ) 0 ;
9568		bool result;
9569
9570		arg1 = (aiMaterial *)jarg1;
9571		arg2 = (int *)jarg2;
9572		result = (bool)aiMaterial_GetMappingModeUDiffuse0(arg1,arg2);
9573		jresult = result;
9574		return jresult;
9575		}
9576
9577
9578		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetMappingModeVDiffuse0(void * jarg1, int * jarg2) {
9579		unsigned int jresult ;
9580		aiMaterial arg1 = (aiMaterial ) 0 ;
9581		int arg2 = (int ) 0 ;
9582		bool result;
9583
9584		arg1 = (aiMaterial *)jarg1;
9585		arg2 = (int *)jarg2;
9586		result = (bool)aiMaterial_GetMappingModeVDiffuse0(arg1,arg2);
9587		jresult = result;
9588		return jresult;
9589		}
9590
9591
9592		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureDiffuse0(void * jarg1, void * jarg2) {
9593		unsigned int jresult ;
9594		aiMaterial arg1 = (aiMaterial ) 0 ;
9595		aiString arg2 = (aiString ) 0 ;
9596		bool result;
9597
9598		arg1 = (aiMaterial *)jarg1;
9599		arg2 = (aiString *)jarg2;
9600		result = (bool)aiMaterial_GetTextureDiffuse0(arg1,arg2);
9601		jresult = result;
9602		return jresult;
9603		}
9604
9605
9606		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureSpecular0(void * jarg1, void * jarg2) {
9607		unsigned int jresult ;
9608		aiMaterial arg1 = (aiMaterial ) 0 ;
9609		aiString arg2 = (aiString ) 0 ;
9610		bool result;
9611
9612		arg1 = (aiMaterial *)jarg1;
9613		arg2 = (aiString *)jarg2;
9614		result = (bool)aiMaterial_GetTextureSpecular0(arg1,arg2);
9615		jresult = result;
9616		return jresult;
9617		}
9618
9619
9620		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureOpacity0(void * jarg1, void * jarg2) {
9621		unsigned int jresult ;
9622		aiMaterial arg1 = (aiMaterial ) 0 ;
9623		aiString arg2 = (aiString ) 0 ;
9624		bool result;
9625
9626		arg1 = (aiMaterial *)jarg1;
9627		arg2 = (aiString *)jarg2;
9628		result = (bool)aiMaterial_GetTextureOpacity0(arg1,arg2);
9629		jresult = result;
9630		return jresult;
9631		}
9632
9633
9634		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureAmbient0(void * jarg1, void * jarg2) {
9635		unsigned int jresult ;
9636		aiMaterial arg1 = (aiMaterial ) 0 ;
9637		aiString arg2 = (aiString ) 0 ;
9638		bool result;
9639
9640		arg1 = (aiMaterial *)jarg1;
9641		arg2 = (aiString *)jarg2;
9642		result = (bool)aiMaterial_GetTextureAmbient0(arg1,arg2);
9643		jresult = result;
9644		return jresult;
9645		}
9646
9647
9648		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureEmissive0(void * jarg1, void * jarg2) {
9649		unsigned int jresult ;
9650		aiMaterial arg1 = (aiMaterial ) 0 ;
9651		aiString arg2 = (aiString ) 0 ;
9652		bool result;
9653
9654		arg1 = (aiMaterial *)jarg1;
9655		arg2 = (aiString *)jarg2;
9656		result = (bool)aiMaterial_GetTextureEmissive0(arg1,arg2);
9657		jresult = result;
9658		return jresult;
9659		}
9660
9661
9662		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureShininess0(void * jarg1, void * jarg2) {
9663		unsigned int jresult ;
9664		aiMaterial arg1 = (aiMaterial ) 0 ;
9665		aiString arg2 = (aiString ) 0 ;
9666		bool result;
9667
9668		arg1 = (aiMaterial *)jarg1;
9669		arg2 = (aiString *)jarg2;
9670		result = (bool)aiMaterial_GetTextureShininess0(arg1,arg2);
9671		jresult = result;
9672		return jresult;
9673		}
9674
9675
9676		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureLightmap0(void * jarg1, void * jarg2) {
9677		unsigned int jresult ;
9678		aiMaterial arg1 = (aiMaterial ) 0 ;
9679		aiString arg2 = (aiString ) 0 ;
9680		bool result;
9681
9682		arg1 = (aiMaterial *)jarg1;
9683		arg2 = (aiString *)jarg2;
9684		result = (bool)aiMaterial_GetTextureLightmap0(arg1,arg2);
9685		jresult = result;
9686		return jresult;
9687		}
9688
9689
9690		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureNormals0(void * jarg1, void * jarg2) {
9691		unsigned int jresult ;
9692		aiMaterial arg1 = (aiMaterial ) 0 ;
9693		aiString arg2 = (aiString ) 0 ;
9694		bool result;
9695
9696		arg1 = (aiMaterial *)jarg1;
9697		arg2 = (aiString *)jarg2;
9698		result = (bool)aiMaterial_GetTextureNormals0(arg1,arg2);
9699		jresult = result;
9700		return jresult;
9701		}
9702
9703
9704		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTextureHeight0(void * jarg1, void * jarg2) {
9705		unsigned int jresult ;
9706		aiMaterial arg1 = (aiMaterial ) 0 ;
9707		aiString arg2 = (aiString ) 0 ;
9708		bool result;
9709
9710		arg1 = (aiMaterial *)jarg1;
9711		arg2 = (aiString *)jarg2;
9712		result = (bool)aiMaterial_GetTextureHeight0(arg1,arg2);
9713		jresult = result;
9714		return jresult;
9715		}
9716
9717
9718		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetGlobalBackgroundImage(void * jarg1, void * jarg2) {
9719		unsigned int jresult ;
9720		aiMaterial arg1 = (aiMaterial ) 0 ;
9721		aiString arg2 = (aiString ) 0 ;
9722		bool result;
9723
9724		arg1 = (aiMaterial *)jarg1;
9725		arg2 = (aiString *)jarg2;
9726		result = (bool)aiMaterial_GetGlobalBackgroundImage(arg1,arg2);
9727		jresult = result;
9728		return jresult;
9729		}
9730
9731
9732		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiMaterial_GetTwoSided(void * jarg1, int * jarg2) {
9733		unsigned int jresult ;
9734		aiMaterial arg1 = (aiMaterial ) 0 ;
9735		int arg2 = (int ) 0 ;
9736		bool result;
9737
9738		arg1 = (aiMaterial *)jarg1;
9739		arg2 = (int *)jarg2;
9740		result = (bool)aiMaterial_GetTwoSided(arg1,arg2);
9741		jresult = result;
9742		return jresult;
9743		}
9744
9745
9746		SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_TEXTURE_BASE_get() {
9747		char * jresult ;
9748		char *result = 0 ;
9749
9750		result = (char *)("$tex.file");
9751		jresult = SWIG_csharp_string_callback((const char *)result);
9752		return jresult;
9753		}
9754
9755
9756		SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_UVWSRC_BASE_get() {
9757		char * jresult ;
9758		char *result = 0 ;
9759
9760		result = (char *)("$tex.uvwsrc");
9761		jresult = SWIG_csharp_string_callback((const char *)result);
9762		return jresult;
9763		}
9764
9765
9766		SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_TEXOP_BASE_get() {
9767		char * jresult ;
9768		char *result = 0 ;
9769
9770		result = (char *)("$tex.op");
9771		jresult = SWIG_csharp_string_callback((const char *)result);
9772		return jresult;
9773		}
9774
9775
9776		SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_MAPPING_BASE_get() {
9777		char * jresult ;
9778		char *result = 0 ;
9779
9780		result = (char *)("$tex.mapping");
9781		jresult = SWIG_csharp_string_callback((const char *)result);
9782		return jresult;
9783		}
9784
9785
9786		SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_TEXBLEND_BASE_get() {
9787		char * jresult ;
9788		char *result = 0 ;
9789
9790		result = (char *)("$tex.blend");
9791		jresult = SWIG_csharp_string_callback((const char *)result);
9792		return jresult;
9793		}
9794
9795
9796		SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_MAPPINGMODE_U_BASE_get() {
9797		char * jresult ;
9798		char *result = 0 ;
9799
9800		result = (char *)("$tex.mapmodeu");
9801		jresult = SWIG_csharp_string_callback((const char *)result);
9802		return jresult;
9803		}
9804
9805
9806		SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_MAPPINGMODE_V_BASE_get() {
9807		char * jresult ;
9808		char *result = 0 ;
9809
9810		result = (char *)("$tex.mapmodev");
9811		jresult = SWIG_csharp_string_callback((const char *)result);
9812		return jresult;
9813		}
9814
9815
9816		SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_TEXMAP_AXIS_BASE_get() {
9817		char * jresult ;
9818		char *result = 0 ;
9819
9820		result = (char *)("$tex.mapaxis");
9821		jresult = SWIG_csharp_string_callback((const char *)result);
9822		return jresult;
9823		}
9824
9825
9826		SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_UVTRANSFORM_BASE_get() {
9827		char * jresult ;
9828		char *result = 0 ;
9829
9830		result = (char *)("$tex.uvtrafo");
9831		jresult = SWIG_csharp_string_callback((const char *)result);
9832		return jresult;
9833		}
9834
9835
9836		SWIGEXPORT char * SWIGSTDCALL CSharp__AI_MATKEY_TEXFLAGS_BASE_get() {
9837		char * jresult ;
9838		char *result = 0 ;
9839
9840		result = (char *)("$tex.flags");
9841		jresult = SWIG_csharp_string_callback((const char *)result);
9842		return jresult;
9843		}
9844
9845
9846		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_0() {
9847		void * jresult ;
9848		aiQuaternion *result = 0 ;
9849
9850		result = (aiQuaternion *)new aiQuaternion();
9851		jresult = (void *)result;
9852		return jresult;
9853		}
9854
9855
9856		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_1(float jarg1, float jarg2, float jarg3, float jarg4) {
9857		void * jresult ;
9858		float arg1 ;
9859		float arg2 ;
9860		float arg3 ;
9861		float arg4 ;
9862		aiQuaternion *result = 0 ;
9863
9864		arg1 = (float)jarg1;
9865		arg2 = (float)jarg2;
9866		arg3 = (float)jarg3;
9867		arg4 = (float)jarg4;
9868		result = (aiQuaternion *)new aiQuaternion(arg1,arg2,arg3,arg4);
9869		jresult = (void *)result;
9870		return jresult;
9871		}
9872
9873
9874		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_2(void * jarg1) {
9875		void * jresult ;
9876		aiMatrix3x3 *arg1 = 0 ;
9877		aiQuaternion *result = 0 ;
9878
9879		arg1 = (aiMatrix3x3 *)jarg1;
9880		if (!arg1) {
9881		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMatrix3x3 const & type is null", 0);
9882		return 0;
9883		}
9884		result = (aiQuaternion )new aiQuaternion((aiMatrix3x3 const &)arg1);
9885		jresult = (void *)result;
9886		return jresult;
9887		}
9888
9889
9890		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_3(float jarg1, float jarg2, float jarg3) {
9891		void * jresult ;
9892		float arg1 ;
9893		float arg2 ;
9894		float arg3 ;
9895		aiQuaternion *result = 0 ;
9896
9897		arg1 = (float)jarg1;
9898		arg2 = (float)jarg2;
9899		arg3 = (float)jarg3;
9900		result = (aiQuaternion *)new aiQuaternion(arg1,arg2,arg3);
9901		jresult = (void *)result;
9902		return jresult;
9903		}
9904
9905
9906		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_4(void * jarg1, float jarg2) {
9907		void * jresult ;
9908		aiVector3D arg1 ;
9909		float arg2 ;
9910		aiVector3D *argp1 ;
9911		aiQuaternion *result = 0 ;
9912
9913		argp1 = (aiVector3D *)jarg1;
9914		if (!argp1) {
9915		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "Attempt to dereference null aiVector3D", 0);
9916		return 0;
9917		}
9918		arg1 = *argp1;
9919		arg2 = (float)jarg2;
9920		result = (aiQuaternion *)new aiQuaternion(arg1,arg2);
9921		jresult = (void *)result;
9922		return jresult;
9923		}
9924
9925
9926		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiQuaternion__SWIG_5(void * jarg1) {
9927		void * jresult ;
9928		aiVector3D arg1 ;
9929		aiVector3D *argp1 ;
9930		aiQuaternion *result = 0 ;
9931
9932		argp1 = (aiVector3D *)jarg1;
9933		if (!argp1) {
9934		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "Attempt to dereference null aiVector3D", 0);
9935		return 0;
9936		}
9937		arg1 = *argp1;
9938		result = (aiQuaternion *)new aiQuaternion(arg1);
9939		jresult = (void *)result;
9940		return jresult;
9941		}
9942
9943
9944		SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuaternion_GetMatrix(void * jarg1) {
9945		void * jresult ;
9946		aiQuaternion arg1 = (aiQuaternion ) 0 ;
9947		aiMatrix3x3 result;
9948
9949		arg1 = (aiQuaternion *)jarg1;
9950		result = ((aiQuaternion const *)arg1)->GetMatrix();
9951		jresult = new aiMatrix3x3((const aiMatrix3x3 &)result);
9952		return jresult;
9953		}
9954
9955
9956		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuaternion___equal__(void * jarg1, void * jarg2) {
9957		unsigned int jresult ;
9958		aiQuaternion arg1 = (aiQuaternion ) 0 ;
9959		aiQuaternion *arg2 = 0 ;
9960		bool result;
9961
9962		arg1 = (aiQuaternion *)jarg1;
9963		arg2 = (aiQuaternion *)jarg2;
9964		if (!arg2) {
9965		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaternion const & type is null", 0);
9966		return 0;
9967		}
9968		result = (bool)((aiQuaternion const )arg1)->operator ==((aiQuaternion const &)arg2);
9969		jresult = result;
9970		return jresult;
9971		}
9972
9973
9974		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiQuaternion___nequal__(void * jarg1, void * jarg2) {
9975		unsigned int jresult ;
9976		aiQuaternion arg1 = (aiQuaternion ) 0 ;
9977		aiQuaternion *arg2 = 0 ;
9978		bool result;
9979
9980		arg1 = (aiQuaternion *)jarg1;
9981		arg2 = (aiQuaternion *)jarg2;
9982		if (!arg2) {
9983		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaternion const & type is null", 0);
9984		return 0;
9985		}
9986		result = (bool)((aiQuaternion const )arg1)->operator !=((aiQuaternion const &)arg2);
9987		jresult = result;
9988		return jresult;
9989		}
9990
9991
9992		SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuaternion_Normalize(void * jarg1) {
9993		void * jresult ;
9994		aiQuaternion arg1 = (aiQuaternion ) 0 ;
9995		aiQuaternion *result = 0 ;
9996
9997		arg1 = (aiQuaternion *)jarg1;
9998		result = (aiQuaternion *) &(arg1)->Normalize();
9999		jresult = (void *)result;
10000		return jresult;
10001		}
10002
10003
10004		SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuaternion_Conjugate(void * jarg1) {
10005		void * jresult ;
10006		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10007		aiQuaternion *result = 0 ;
10008
10009		arg1 = (aiQuaternion *)jarg1;
10010		result = (aiQuaternion *) &(arg1)->Conjugate();
10011		jresult = (void *)result;
10012		return jresult;
10013		}
10014
10015
10016		SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuaternion_Rotate(void * jarg1, void * jarg2) {
10017		void * jresult ;
10018		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10019		aiVector3D *arg2 = 0 ;
10020		aiVector3D result;
10021
10022		arg1 = (aiQuaternion *)jarg1;
10023		arg2 = (aiVector3D *)jarg2;
10024		if (!arg2) {
10025		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiVector3D const & type is null", 0);
10026		return 0;
10027		}
10028		result = (arg1)->Rotate((aiVector3D const &)*arg2);
10029		jresult = new aiVector3D((const aiVector3D &)result);
10030		return jresult;
10031		}
10032
10033
10034		SWIGEXPORT void * SWIGSTDCALL CSharp_aiQuaternion___mul__(void * jarg1, void * jarg2) {
10035		void * jresult ;
10036		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10037		aiQuaternion *arg2 = 0 ;
10038		aiQuaternion result;
10039
10040		arg1 = (aiQuaternion *)jarg1;
10041		arg2 = (aiQuaternion *)jarg2;
10042		if (!arg2) {
10043		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaternion const & type is null", 0);
10044		return 0;
10045		}
10046		result = ((aiQuaternion const )arg1)->operator ((aiQuaternion const &)*arg2);
10047		jresult = new aiQuaternion((const aiQuaternion &)result);
10048		return jresult;
10049		}
10050
10051
10052		SWIGEXPORT void SWIGSTDCALL CSharp_aiQuaternion_Interpolate(void * jarg1, void * jarg2, void * jarg3, float jarg4) {
10053		aiQuaternion *arg1 = 0 ;
10054		aiQuaternion *arg2 = 0 ;
10055		aiQuaternion *arg3 = 0 ;
10056		float arg4 ;
10057
10058		arg1 = (aiQuaternion *)jarg1;
10059		if (!arg1) {
10060		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaternion & type is null", 0);
10061		return ;
10062		}
10063		arg2 = (aiQuaternion *)jarg2;
10064		if (!arg2) {
10065		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaternion const & type is null", 0);
10066		return ;
10067		}
10068		arg3 = (aiQuaternion *)jarg3;
10069		if (!arg3) {
10070		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiQuaternion const & type is null", 0);
10071		return ;
10072		}
10073		arg4 = (float)jarg4;
10074		aiQuaternion::Interpolate(arg1,(aiQuaternion const &)arg2,(aiQuaternion const &)*arg3,arg4);
10075		}
10076
10077
10078		SWIGEXPORT void SWIGSTDCALL CSharp_aiQuaternion_w_set(void * jarg1, float jarg2) {
10079		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10080		float arg2 ;
10081
10082		arg1 = (aiQuaternion *)jarg1;
10083		arg2 = (float)jarg2;
10084		if (arg1) (arg1)->w = arg2;
10085		}
10086
10087
10088		SWIGEXPORT float SWIGSTDCALL CSharp_aiQuaternion_w_get(void * jarg1) {
10089		float jresult ;
10090		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10091		float result;
10092
10093		arg1 = (aiQuaternion *)jarg1;
10094		result = (float) ((arg1)->w);
10095		jresult = result;
10096		return jresult;
10097		}
10098
10099
10100		SWIGEXPORT void SWIGSTDCALL CSharp_aiQuaternion_x_set(void * jarg1, float jarg2) {
10101		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10102		float arg2 ;
10103
10104		arg1 = (aiQuaternion *)jarg1;
10105		arg2 = (float)jarg2;
10106		if (arg1) (arg1)->x = arg2;
10107		}
10108
10109
10110		SWIGEXPORT float SWIGSTDCALL CSharp_aiQuaternion_x_get(void * jarg1) {
10111		float jresult ;
10112		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10113		float result;
10114
10115		arg1 = (aiQuaternion *)jarg1;
10116		result = (float) ((arg1)->x);
10117		jresult = result;
10118		return jresult;
10119		}
10120
10121
10122		SWIGEXPORT void SWIGSTDCALL CSharp_aiQuaternion_y_set(void * jarg1, float jarg2) {
10123		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10124		float arg2 ;
10125
10126		arg1 = (aiQuaternion *)jarg1;
10127		arg2 = (float)jarg2;
10128		if (arg1) (arg1)->y = arg2;
10129		}
10130
10131
10132		SWIGEXPORT float SWIGSTDCALL CSharp_aiQuaternion_y_get(void * jarg1) {
10133		float jresult ;
10134		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10135		float result;
10136
10137		arg1 = (aiQuaternion *)jarg1;
10138		result = (float) ((arg1)->y);
10139		jresult = result;
10140		return jresult;
10141		}
10142
10143
10144		SWIGEXPORT void SWIGSTDCALL CSharp_aiQuaternion_z_set(void * jarg1, float jarg2) {
10145		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10146		float arg2 ;
10147
10148		arg1 = (aiQuaternion *)jarg1;
10149		arg2 = (float)jarg2;
10150		if (arg1) (arg1)->z = arg2;
10151		}
10152
10153
10154		SWIGEXPORT float SWIGSTDCALL CSharp_aiQuaternion_z_get(void * jarg1) {
10155		float jresult ;
10156		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10157		float result;
10158
10159		arg1 = (aiQuaternion *)jarg1;
10160		result = (float) ((arg1)->z);
10161		jresult = result;
10162		return jresult;
10163		}
10164
10165
10166		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiQuaternion(void * jarg1) {
10167		aiQuaternion arg1 = (aiQuaternion ) 0 ;
10168
10169		arg1 = (aiQuaternion *)jarg1;
10170		delete arg1;
10171		}
10172
10173
10174		SWIGEXPORT void SWIGSTDCALL CSharp_aiNode_mName_set(void * jarg1, void * jarg2) {
10175		aiNode arg1 = (aiNode ) 0 ;
10176		aiString arg2 = (aiString ) 0 ;
10177
10178		arg1 = (aiNode *)jarg1;
10179		arg2 = (aiString *)jarg2;
10180		if (arg1) (arg1)->mName = *arg2;
10181		}
10182
10183
10184		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_mName_get(void * jarg1) {
10185		void * jresult ;
10186		aiNode arg1 = (aiNode ) 0 ;
10187		aiString *result = 0 ;
10188
10189		arg1 = (aiNode *)jarg1;
10190		result = (aiString *)& ((arg1)->mName);
10191		jresult = (void *)result;
10192		return jresult;
10193		}
10194
10195
10196		SWIGEXPORT void SWIGSTDCALL CSharp_aiNode_mTransformation_set(void * jarg1, void * jarg2) {
10197		aiNode arg1 = (aiNode ) 0 ;
10198		aiMatrix4x4 arg2 = (aiMatrix4x4 ) 0 ;
10199
10200		arg1 = (aiNode *)jarg1;
10201		arg2 = (aiMatrix4x4 *)jarg2;
10202		if (arg1) (arg1)->mTransformation = *arg2;
10203		}
10204
10205
10206		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_mTransformation_get(void * jarg1) {
10207		void * jresult ;
10208		aiNode arg1 = (aiNode ) 0 ;
10209		aiMatrix4x4 *result = 0 ;
10210
10211		arg1 = (aiNode *)jarg1;
10212		result = (aiMatrix4x4 *)& ((arg1)->mTransformation);
10213		jresult = (void *)result;
10214		return jresult;
10215		}
10216
10217
10218		SWIGEXPORT void SWIGSTDCALL CSharp_aiNode_mParent_set(void * jarg1, void * jarg2) {
10219		aiNode arg1 = (aiNode ) 0 ;
10220		aiNode arg2 = (aiNode ) 0 ;
10221
10222		arg1 = (aiNode *)jarg1;
10223		arg2 = (aiNode *)jarg2;
10224		if (arg1) (arg1)->mParent = arg2;
10225		}
10226
10227
10228		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_mParent_get(void * jarg1) {
10229		void * jresult ;
10230		aiNode arg1 = (aiNode ) 0 ;
10231		aiNode *result = 0 ;
10232
10233		arg1 = (aiNode *)jarg1;
10234		result = (aiNode *) ((arg1)->mParent);
10235		jresult = (void *)result;
10236		return jresult;
10237		}
10238
10239
10240		SWIGEXPORT void SWIGSTDCALL CSharp_aiNode_mNumChildren_set(void * jarg1, unsigned int jarg2) {
10241		aiNode arg1 = (aiNode ) 0 ;
10242		unsigned int arg2 ;
10243
10244		arg1 = (aiNode *)jarg1;
10245		arg2 = (unsigned int)jarg2;
10246		if (arg1) (arg1)->mNumChildren = arg2;
10247		}
10248
10249
10250		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiNode_mNumChildren_get(void * jarg1) {
10251		unsigned int jresult ;
10252		aiNode arg1 = (aiNode ) 0 ;
10253		unsigned int result;
10254
10255		arg1 = (aiNode *)jarg1;
10256		result = (unsigned int) ((arg1)->mNumChildren);
10257		jresult = result;
10258		return jresult;
10259		}
10260
10261
10262		SWIGEXPORT void SWIGSTDCALL CSharp_aiNode_mNumMeshes_set(void * jarg1, unsigned int jarg2) {
10263		aiNode arg1 = (aiNode ) 0 ;
10264		unsigned int arg2 ;
10265
10266		arg1 = (aiNode *)jarg1;
10267		arg2 = (unsigned int)jarg2;
10268		if (arg1) (arg1)->mNumMeshes = arg2;
10269		}
10270
10271
10272		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiNode_mNumMeshes_get(void * jarg1) {
10273		unsigned int jresult ;
10274		aiNode arg1 = (aiNode ) 0 ;
10275		unsigned int result;
10276
10277		arg1 = (aiNode *)jarg1;
10278		result = (unsigned int) ((arg1)->mNumMeshes);
10279		jresult = result;
10280		return jresult;
10281		}
10282
10283
10284		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiNode__SWIG_0() {
10285		void * jresult ;
10286		aiNode *result = 0 ;
10287
10288		result = (aiNode *)new aiNode();
10289		jresult = (void *)result;
10290		return jresult;
10291		}
10292
10293
10294		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiNode__SWIG_1(char * jarg1) {
10295		void * jresult ;
10296		std::string *arg1 = 0 ;
10297		aiNode *result = 0 ;
10298
10299		if (!jarg1) {
10300		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "null string", 0);
10301		return 0;
10302		}
10303		std::string arg1_str(jarg1);
10304		arg1 = &arg1_str;
10305		result = (aiNode )new aiNode((std::string const &)arg1);
10306		jresult = (void *)result;
10307		return jresult;
10308		}
10309
10310
10311		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiNode(void * jarg1) {
10312		aiNode arg1 = (aiNode ) 0 ;
10313
10314		arg1 = (aiNode *)jarg1;
10315		delete arg1;
10316		}
10317
10318
10319		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_FindNode__SWIG_0(void * jarg1, void * jarg2) {
10320		void * jresult ;
10321		aiNode arg1 = (aiNode ) 0 ;
10322		aiString *arg2 = 0 ;
10323		aiNode *result = 0 ;
10324
10325		arg1 = (aiNode *)jarg1;
10326		arg2 = (aiString *)jarg2;
10327		if (!arg2) {
10328		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiString const & type is null", 0);
10329		return 0;
10330		}
10331		result = (aiNode )(arg1)->FindNode((aiString const &)arg2);
10332		jresult = (void *)result;
10333		return jresult;
10334		}
10335
10336
10337		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_FindNode__SWIG_1(void * jarg1, char * jarg2) {
10338		void * jresult ;
10339		aiNode arg1 = (aiNode ) 0 ;
10340		char arg2 = (char ) 0 ;
10341		aiNode *result = 0 ;
10342
10343		arg1 = (aiNode *)jarg1;
10344		arg2 = (char *)jarg2;
10345		result = (aiNode )(arg1)->FindNode((char const )arg2);
10346		jresult = (void *)result;
10347		return jresult;
10348		}
10349
10350
10351		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_GetmChildren(void * jarg1) {
10352		void * jresult ;
10353		aiNode arg1 = (aiNode ) 0 ;
10354		std::vector< aiNode * > *result = 0 ;
10355
10356		arg1 = (aiNode *)jarg1;
10357		result = (std::vector< aiNode * > *)aiNode_GetmChildren(arg1);
10358		jresult = (void *)result;
10359		return jresult;
10360		}
10361
10362
10363		SWIGEXPORT void * SWIGSTDCALL CSharp_aiNode_GetmMeshes(void * jarg1) {
10364		void * jresult ;
10365		aiNode arg1 = (aiNode ) 0 ;
10366		std::vector< unsigned int > *result = 0 ;
10367
10368		arg1 = (aiNode *)jarg1;
10369		result = (std::vector< unsigned int > *)aiNode_GetmMeshes(arg1);
10370		jresult = (void *)result;
10371		return jresult;
10372		}
10373
10374
10375		SWIGEXPORT int SWIGSTDCALL CSharp_AI_SCENE_FLAGS_INCOMPLETE_get() {
10376		int jresult ;
10377		int result;
10378
10379		result = (int)(0x1);
10380		jresult = result;
10381		return jresult;
10382		}
10383
10384
10385		SWIGEXPORT int SWIGSTDCALL CSharp_AI_SCENE_FLAGS_VALIDATED_get() {
10386		int jresult ;
10387		int result;
10388
10389		result = (int)(0x2);
10390		jresult = result;
10391		return jresult;
10392		}
10393
10394
10395		SWIGEXPORT int SWIGSTDCALL CSharp_AI_SCENE_FLAGS_VALIDATION_WARNING_get() {
10396		int jresult ;
10397		int result;
10398
10399		result = (int)(0x4);
10400		jresult = result;
10401		return jresult;
10402		}
10403
10404
10405		SWIGEXPORT int SWIGSTDCALL CSharp_AI_SCENE_FLAGS_NON_VERBOSE_FORMAT_get() {
10406		int jresult ;
10407		int result;
10408
10409		result = (int)(0x8);
10410		jresult = result;
10411		return jresult;
10412		}
10413
10414
10415		SWIGEXPORT int SWIGSTDCALL CSharp_AI_SCENE_FLAGS_TERRAIN_get() {
10416		int jresult ;
10417		int result;
10418
10419		result = (int)(0x10);
10420		jresult = result;
10421		return jresult;
10422		}
10423
10424
10425		SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mFlags_set(void * jarg1, unsigned int jarg2) {
10426		aiScene arg1 = (aiScene ) 0 ;
10427		unsigned int arg2 ;
10428
10429		arg1 = (aiScene *)jarg1;
10430		arg2 = (unsigned int)jarg2;
10431		if (arg1) (arg1)->mFlags = arg2;
10432		}
10433
10434
10435		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mFlags_get(void * jarg1) {
10436		unsigned int jresult ;
10437		aiScene arg1 = (aiScene ) 0 ;
10438		unsigned int result;
10439
10440		arg1 = (aiScene *)jarg1;
10441		result = (unsigned int) ((arg1)->mFlags);
10442		jresult = result;
10443		return jresult;
10444		}
10445
10446
10447		SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mRootNode_set(void * jarg1, void * jarg2) {
10448		aiScene arg1 = (aiScene ) 0 ;
10449		aiNode arg2 = (aiNode ) 0 ;
10450
10451		arg1 = (aiScene *)jarg1;
10452		arg2 = (aiNode *)jarg2;
10453		if (arg1) (arg1)->mRootNode = arg2;
10454		}
10455
10456
10457		SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_mRootNode_get(void * jarg1) {
10458		void * jresult ;
10459		aiScene arg1 = (aiScene ) 0 ;
10460		aiNode *result = 0 ;
10461
10462		arg1 = (aiScene *)jarg1;
10463		result = (aiNode *) ((arg1)->mRootNode);
10464		jresult = (void *)result;
10465		return jresult;
10466		}
10467
10468
10469		SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumMeshes_set(void * jarg1, unsigned int jarg2) {
10470		aiScene arg1 = (aiScene ) 0 ;
10471		unsigned int arg2 ;
10472
10473		arg1 = (aiScene *)jarg1;
10474		arg2 = (unsigned int)jarg2;
10475		if (arg1) (arg1)->mNumMeshes = arg2;
10476		}
10477
10478
10479		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumMeshes_get(void * jarg1) {
10480		unsigned int jresult ;
10481		aiScene arg1 = (aiScene ) 0 ;
10482		unsigned int result;
10483
10484		arg1 = (aiScene *)jarg1;
10485		result = (unsigned int) ((arg1)->mNumMeshes);
10486		jresult = result;
10487		return jresult;
10488		}
10489
10490
10491		SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumMaterials_set(void * jarg1, unsigned int jarg2) {
10492		aiScene arg1 = (aiScene ) 0 ;
10493		unsigned int arg2 ;
10494
10495		arg1 = (aiScene *)jarg1;
10496		arg2 = (unsigned int)jarg2;
10497		if (arg1) (arg1)->mNumMaterials = arg2;
10498		}
10499
10500
10501		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumMaterials_get(void * jarg1) {
10502		unsigned int jresult ;
10503		aiScene arg1 = (aiScene ) 0 ;
10504		unsigned int result;
10505
10506		arg1 = (aiScene *)jarg1;
10507		result = (unsigned int) ((arg1)->mNumMaterials);
10508		jresult = result;
10509		return jresult;
10510		}
10511
10512
10513		SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumAnimations_set(void * jarg1, unsigned int jarg2) {
10514		aiScene arg1 = (aiScene ) 0 ;
10515		unsigned int arg2 ;
10516
10517		arg1 = (aiScene *)jarg1;
10518		arg2 = (unsigned int)jarg2;
10519		if (arg1) (arg1)->mNumAnimations = arg2;
10520		}
10521
10522
10523		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumAnimations_get(void * jarg1) {
10524		unsigned int jresult ;
10525		aiScene arg1 = (aiScene ) 0 ;
10526		unsigned int result;
10527
10528		arg1 = (aiScene *)jarg1;
10529		result = (unsigned int) ((arg1)->mNumAnimations);
10530		jresult = result;
10531		return jresult;
10532		}
10533
10534
10535		SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumTextures_set(void * jarg1, unsigned int jarg2) {
10536		aiScene arg1 = (aiScene ) 0 ;
10537		unsigned int arg2 ;
10538
10539		arg1 = (aiScene *)jarg1;
10540		arg2 = (unsigned int)jarg2;
10541		if (arg1) (arg1)->mNumTextures = arg2;
10542		}
10543
10544
10545		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumTextures_get(void * jarg1) {
10546		unsigned int jresult ;
10547		aiScene arg1 = (aiScene ) 0 ;
10548		unsigned int result;
10549
10550		arg1 = (aiScene *)jarg1;
10551		result = (unsigned int) ((arg1)->mNumTextures);
10552		jresult = result;
10553		return jresult;
10554		}
10555
10556
10557		SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumLights_set(void * jarg1, unsigned int jarg2) {
10558		aiScene arg1 = (aiScene ) 0 ;
10559		unsigned int arg2 ;
10560
10561		arg1 = (aiScene *)jarg1;
10562		arg2 = (unsigned int)jarg2;
10563		if (arg1) (arg1)->mNumLights = arg2;
10564		}
10565
10566
10567		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumLights_get(void * jarg1) {
10568		unsigned int jresult ;
10569		aiScene arg1 = (aiScene ) 0 ;
10570		unsigned int result;
10571
10572		arg1 = (aiScene *)jarg1;
10573		result = (unsigned int) ((arg1)->mNumLights);
10574		jresult = result;
10575		return jresult;
10576		}
10577
10578
10579		SWIGEXPORT void SWIGSTDCALL CSharp_aiScene_mNumCameras_set(void * jarg1, unsigned int jarg2) {
10580		aiScene arg1 = (aiScene ) 0 ;
10581		unsigned int arg2 ;
10582
10583		arg1 = (aiScene *)jarg1;
10584		arg2 = (unsigned int)jarg2;
10585		if (arg1) (arg1)->mNumCameras = arg2;
10586		}
10587
10588
10589		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_mNumCameras_get(void * jarg1) {
10590		unsigned int jresult ;
10591		aiScene arg1 = (aiScene ) 0 ;
10592		unsigned int result;
10593
10594		arg1 = (aiScene *)jarg1;
10595		result = (unsigned int) ((arg1)->mNumCameras);
10596		jresult = result;
10597		return jresult;
10598		}
10599
10600
10601		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiScene() {
10602		void * jresult ;
10603		aiScene *result = 0 ;
10604
10605		result = (aiScene *)new aiScene();
10606		jresult = (void *)result;
10607		return jresult;
10608		}
10609
10610
10611		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiScene(void * jarg1) {
10612		aiScene arg1 = (aiScene ) 0 ;
10613
10614		arg1 = (aiScene *)jarg1;
10615		delete arg1;
10616		}
10617
10618
10619		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasMeshes(void * jarg1) {
10620		unsigned int jresult ;
10621		aiScene arg1 = (aiScene ) 0 ;
10622		bool result;
10623
10624		arg1 = (aiScene *)jarg1;
10625		result = (bool)((aiScene const *)arg1)->HasMeshes();
10626		jresult = result;
10627		return jresult;
10628		}
10629
10630
10631		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasMaterials(void * jarg1) {
10632		unsigned int jresult ;
10633		aiScene arg1 = (aiScene ) 0 ;
10634		bool result;
10635
10636		arg1 = (aiScene *)jarg1;
10637		result = (bool)((aiScene const *)arg1)->HasMaterials();
10638		jresult = result;
10639		return jresult;
10640		}
10641
10642
10643		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasLights(void * jarg1) {
10644		unsigned int jresult ;
10645		aiScene arg1 = (aiScene ) 0 ;
10646		bool result;
10647
10648		arg1 = (aiScene *)jarg1;
10649		result = (bool)((aiScene const *)arg1)->HasLights();
10650		jresult = result;
10651		return jresult;
10652		}
10653
10654
10655		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasTextures(void * jarg1) {
10656		unsigned int jresult ;
10657		aiScene arg1 = (aiScene ) 0 ;
10658		bool result;
10659
10660		arg1 = (aiScene *)jarg1;
10661		result = (bool)((aiScene const *)arg1)->HasTextures();
10662		jresult = result;
10663		return jresult;
10664		}
10665
10666
10667		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasCameras(void * jarg1) {
10668		unsigned int jresult ;
10669		aiScene arg1 = (aiScene ) 0 ;
10670		bool result;
10671
10672		arg1 = (aiScene *)jarg1;
10673		result = (bool)((aiScene const *)arg1)->HasCameras();
10674		jresult = result;
10675		return jresult;
10676		}
10677
10678
10679		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiScene_HasAnimations(void * jarg1) {
10680		unsigned int jresult ;
10681		aiScene arg1 = (aiScene ) 0 ;
10682		bool result;
10683
10684		arg1 = (aiScene *)jarg1;
10685		result = (bool)((aiScene const *)arg1)->HasAnimations();
10686		jresult = result;
10687		return jresult;
10688		}
10689
10690
10691		SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmAnimations(void * jarg1) {
10692		void * jresult ;
10693		aiScene arg1 = (aiScene ) 0 ;
10694		std::vector< aiAnimation * > *result = 0 ;
10695
10696		arg1 = (aiScene *)jarg1;
10697		result = (std::vector< aiAnimation * > *)aiScene_GetmAnimations(arg1);
10698		jresult = (void *)result;
10699		return jresult;
10700		}
10701
10702
10703		SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmCameras(void * jarg1) {
10704		void * jresult ;
10705		aiScene arg1 = (aiScene ) 0 ;
10706		std::vector< aiCamera * > *result = 0 ;
10707
10708		arg1 = (aiScene *)jarg1;
10709		result = (std::vector< aiCamera * > *)aiScene_GetmCameras(arg1);
10710		jresult = (void *)result;
10711		return jresult;
10712		}
10713
10714
10715		SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmLights(void * jarg1) {
10716		void * jresult ;
10717		aiScene arg1 = (aiScene ) 0 ;
10718		std::vector< aiLight * > *result = 0 ;
10719
10720		arg1 = (aiScene *)jarg1;
10721		result = (std::vector< aiLight * > *)aiScene_GetmLights(arg1);
10722		jresult = (void *)result;
10723		return jresult;
10724		}
10725
10726
10727		SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmMaterials(void * jarg1) {
10728		void * jresult ;
10729		aiScene arg1 = (aiScene ) 0 ;
10730		std::vector< aiMaterial * > *result = 0 ;
10731
10732		arg1 = (aiScene *)jarg1;
10733		result = (std::vector< aiMaterial * > *)aiScene_GetmMaterials(arg1);
10734		jresult = (void *)result;
10735		return jresult;
10736		}
10737
10738
10739		SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmMeshes(void * jarg1) {
10740		void * jresult ;
10741		aiScene arg1 = (aiScene ) 0 ;
10742		std::vector< aiMesh * > *result = 0 ;
10743
10744		arg1 = (aiScene *)jarg1;
10745		result = (std::vector< aiMesh * > *)aiScene_GetmMeshes(arg1);
10746		jresult = (void *)result;
10747		return jresult;
10748		}
10749
10750
10751		SWIGEXPORT void * SWIGSTDCALL CSharp_aiScene_GetmTextures(void * jarg1) {
10752		void * jresult ;
10753		aiScene arg1 = (aiScene ) 0 ;
10754		std::vector< aiTexture * > *result = 0 ;
10755
10756		arg1 = (aiScene *)jarg1;
10757		result = (std::vector< aiTexture * > *)aiScene_GetmTextures(arg1);
10758		jresult = (void *)result;
10759		return jresult;
10760		}
10761
10762
10763		SWIGEXPORT void SWIGSTDCALL CSharp_aiTexel_b_set(void * jarg1, unsigned char jarg2) {
10764		aiTexel arg1 = (aiTexel ) 0 ;
10765		unsigned char arg2 ;
10766
10767		arg1 = (aiTexel *)jarg1;
10768		arg2 = (unsigned char)jarg2;
10769		if (arg1) (arg1)->b = arg2;
10770		}
10771
10772
10773		SWIGEXPORT unsigned char SWIGSTDCALL CSharp_aiTexel_b_get(void * jarg1) {
10774		unsigned char jresult ;
10775		aiTexel arg1 = (aiTexel ) 0 ;
10776		unsigned char result;
10777
10778		arg1 = (aiTexel *)jarg1;
10779		result = (unsigned char) ((arg1)->b);
10780		jresult = result;
10781		return jresult;
10782		}
10783
10784
10785		SWIGEXPORT void SWIGSTDCALL CSharp_aiTexel_g_set(void * jarg1, unsigned char jarg2) {
10786		aiTexel arg1 = (aiTexel ) 0 ;
10787		unsigned char arg2 ;
10788
10789		arg1 = (aiTexel *)jarg1;
10790		arg2 = (unsigned char)jarg2;
10791		if (arg1) (arg1)->g = arg2;
10792		}
10793
10794
10795		SWIGEXPORT unsigned char SWIGSTDCALL CSharp_aiTexel_g_get(void * jarg1) {
10796		unsigned char jresult ;
10797		aiTexel arg1 = (aiTexel ) 0 ;
10798		unsigned char result;
10799
10800		arg1 = (aiTexel *)jarg1;
10801		result = (unsigned char) ((arg1)->g);
10802		jresult = result;
10803		return jresult;
10804		}
10805
10806
10807		SWIGEXPORT void SWIGSTDCALL CSharp_aiTexel_r_set(void * jarg1, unsigned char jarg2) {
10808		aiTexel arg1 = (aiTexel ) 0 ;
10809		unsigned char arg2 ;
10810
10811		arg1 = (aiTexel *)jarg1;
10812		arg2 = (unsigned char)jarg2;
10813		if (arg1) (arg1)->r = arg2;
10814		}
10815
10816
10817		SWIGEXPORT unsigned char SWIGSTDCALL CSharp_aiTexel_r_get(void * jarg1) {
10818		unsigned char jresult ;
10819		aiTexel arg1 = (aiTexel ) 0 ;
10820		unsigned char result;
10821
10822		arg1 = (aiTexel *)jarg1;
10823		result = (unsigned char) ((arg1)->r);
10824		jresult = result;
10825		return jresult;
10826		}
10827
10828
10829		SWIGEXPORT void SWIGSTDCALL CSharp_aiTexel_a_set(void * jarg1, unsigned char jarg2) {
10830		aiTexel arg1 = (aiTexel ) 0 ;
10831		unsigned char arg2 ;
10832
10833		arg1 = (aiTexel *)jarg1;
10834		arg2 = (unsigned char)jarg2;
10835		if (arg1) (arg1)->a = arg2;
10836		}
10837
10838
10839		SWIGEXPORT unsigned char SWIGSTDCALL CSharp_aiTexel_a_get(void * jarg1) {
10840		unsigned char jresult ;
10841		aiTexel arg1 = (aiTexel ) 0 ;
10842		unsigned char result;
10843
10844		arg1 = (aiTexel *)jarg1;
10845		result = (unsigned char) ((arg1)->a);
10846		jresult = result;
10847		return jresult;
10848		}
10849
10850
10851		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiTexel___equal__(void * jarg1, void * jarg2) {
10852		unsigned int jresult ;
10853		aiTexel arg1 = (aiTexel ) 0 ;
10854		aiTexel *arg2 = 0 ;
10855		bool result;
10856
10857		arg1 = (aiTexel *)jarg1;
10858		arg2 = (aiTexel *)jarg2;
10859		if (!arg2) {
10860		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiTexel const & type is null", 0);
10861		return 0;
10862		}
10863		result = (bool)((aiTexel const )arg1)->operator ==((aiTexel const &)arg2);
10864		jresult = result;
10865		return jresult;
10866		}
10867
10868
10869		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiTexel___nequal__(void * jarg1, void * jarg2) {
10870		unsigned int jresult ;
10871		aiTexel arg1 = (aiTexel ) 0 ;
10872		aiTexel *arg2 = 0 ;
10873		bool result;
10874
10875		arg1 = (aiTexel *)jarg1;
10876		arg2 = (aiTexel *)jarg2;
10877		if (!arg2) {
10878		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiTexel const & type is null", 0);
10879		return 0;
10880		}
10881		result = (bool)((aiTexel const )arg1)->operator !=((aiTexel const &)arg2);
10882		jresult = result;
10883		return jresult;
10884		}
10885
10886
10887		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiTexel() {
10888		void * jresult ;
10889		aiTexel *result = 0 ;
10890
10891		result = (aiTexel *)new aiTexel();
10892		jresult = (void *)result;
10893		return jresult;
10894		}
10895
10896
10897		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiTexel(void * jarg1) {
10898		aiTexel arg1 = (aiTexel ) 0 ;
10899
10900		arg1 = (aiTexel *)jarg1;
10901		delete arg1;
10902		}
10903
10904
10905		SWIGEXPORT void SWIGSTDCALL CSharp_aiTexture_mWidth_set(void * jarg1, unsigned int jarg2) {
10906		aiTexture arg1 = (aiTexture ) 0 ;
10907		unsigned int arg2 ;
10908
10909		arg1 = (aiTexture *)jarg1;
10910		arg2 = (unsigned int)jarg2;
10911		if (arg1) (arg1)->mWidth = arg2;
10912		}
10913
10914
10915		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiTexture_mWidth_get(void * jarg1) {
10916		unsigned int jresult ;
10917		aiTexture arg1 = (aiTexture ) 0 ;
10918		unsigned int result;
10919
10920		arg1 = (aiTexture *)jarg1;
10921		result = (unsigned int) ((arg1)->mWidth);
10922		jresult = result;
10923		return jresult;
10924		}
10925
10926
10927		SWIGEXPORT void SWIGSTDCALL CSharp_aiTexture_mHeight_set(void * jarg1, unsigned int jarg2) {
10928		aiTexture arg1 = (aiTexture ) 0 ;
10929		unsigned int arg2 ;
10930
10931		arg1 = (aiTexture *)jarg1;
10932		arg2 = (unsigned int)jarg2;
10933		if (arg1) (arg1)->mHeight = arg2;
10934		}
10935
10936
10937		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiTexture_mHeight_get(void * jarg1) {
10938		unsigned int jresult ;
10939		aiTexture arg1 = (aiTexture ) 0 ;
10940		unsigned int result;
10941
10942		arg1 = (aiTexture *)jarg1;
10943		result = (unsigned int) ((arg1)->mHeight);
10944		jresult = result;
10945		return jresult;
10946		}
10947
10948
10949		SWIGEXPORT void SWIGSTDCALL CSharp_aiTexture_achFormatHint_set(void * jarg1, char * jarg2) {
10950		aiTexture arg1 = (aiTexture ) 0 ;
10951		char *arg2 ;
10952
10953		arg1 = (aiTexture *)jarg1;
10954		arg2 = (char *)jarg2;
10955		{
10956		if(arg2) {
10957		strncpy((char)arg1->achFormatHint, (const char )arg2, 4-1);
10958		arg1->achFormatHint[4-1] = 0;
10959		} else {
10960		arg1->achFormatHint[0] = 0;
10961		}
10962		}
10963		}
10964
10965
10966		SWIGEXPORT char * SWIGSTDCALL CSharp_aiTexture_achFormatHint_get(void * jarg1) {
10967		char * jresult ;
10968		aiTexture arg1 = (aiTexture ) 0 ;
10969		char *result = 0 ;
10970
10971		arg1 = (aiTexture *)jarg1;
10972		result = (char )(char ) ((arg1)->achFormatHint);
10973		jresult = SWIG_csharp_string_callback((const char *)result);
10974		return jresult;
10975		}
10976
10977
10978		SWIGEXPORT void SWIGSTDCALL CSharp_aiTexture_pcData_set(void * jarg1, void * jarg2) {
10979		aiTexture arg1 = (aiTexture ) 0 ;
10980		aiTexel arg2 = (aiTexel ) 0 ;
10981
10982		arg1 = (aiTexture *)jarg1;
10983		arg2 = (aiTexel *)jarg2;
10984		if (arg1) (arg1)->pcData = arg2;
10985		}
10986
10987
10988		SWIGEXPORT void * SWIGSTDCALL CSharp_aiTexture_pcData_get(void * jarg1) {
10989		void * jresult ;
10990		aiTexture arg1 = (aiTexture ) 0 ;
10991		aiTexel *result = 0 ;
10992
10993		arg1 = (aiTexture *)jarg1;
10994		result = (aiTexel *) ((arg1)->pcData);
10995		jresult = (void *)result;
10996		return jresult;
10997		}
10998
10999
11000		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiTexture_CheckFormat(void * jarg1, char * jarg2) {
11001		unsigned int jresult ;
11002		aiTexture arg1 = (aiTexture ) 0 ;
11003		char arg2 = (char ) 0 ;
11004		bool result;
11005
11006		arg1 = (aiTexture *)jarg1;
11007		arg2 = (char *)jarg2;
11008		result = (bool)((aiTexture const )arg1)->CheckFormat((char const )arg2);
11009		jresult = result;
11010		return jresult;
11011		}
11012
11013
11014		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiTexture() {
11015		void * jresult ;
11016		aiTexture *result = 0 ;
11017
11018		result = (aiTexture *)new aiTexture();
11019		jresult = (void *)result;
11020		return jresult;
11021		}
11022
11023
11024		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiTexture(void * jarg1) {
11025		aiTexture arg1 = (aiTexture ) 0 ;
11026
11027		arg1 = (aiTexture *)jarg1;
11028		delete arg1;
11029		}
11030
11031
11032		SWIGEXPORT int SWIGSTDCALL CSharp_AI_PROPERTY_WAS_NOT_EXISTING_get() {
11033		int jresult ;
11034		int result;
11035
11036		result = (int)(0xffffffff);
11037		jresult = result;
11038		return jresult;
11039		}
11040
11041
11042		SWIGEXPORT void * SWIGSTDCALL CSharp_aiImportFileFromMemory(char * jarg1, unsigned int jarg2, unsigned int jarg3, char * jarg4) {
11043		void * jresult ;
11044		char arg1 = (char ) 0 ;
11045		unsigned int arg2 ;
11046		unsigned int arg3 ;
11047		char arg4 = (char ) 0 ;
11048		aiScene *result = 0 ;
11049
11050		arg1 = (char *)jarg1;
11051		arg2 = (unsigned int)jarg2;
11052		arg3 = (unsigned int)jarg3;
11053		arg4 = (char *)jarg4;
11054		result = (aiScene )aiImportFileFromMemory((char const )arg1,arg2,arg3,(char const *)arg4);
11055		jresult = (void *)result;
11056		return jresult;
11057		}
11058
11059
11060		SWIGEXPORT void * SWIGSTDCALL CSharp_new_Importer__SWIG_0() {
11061		void * jresult ;
11062		Assimp::Importer *result = 0 ;
11063
11064		result = (Assimp::Importer *)new Assimp::Importer();
11065		jresult = (void *)result;
11066		return jresult;
11067		}
11068
11069
11070		SWIGEXPORT void * SWIGSTDCALL CSharp_new_Importer__SWIG_1(void * jarg1) {
11071		void * jresult ;
11072		Assimp::Importer *arg1 = 0 ;
11073		Assimp::Importer *result = 0 ;
11074
11075		arg1 = (Assimp::Importer *)jarg1;
11076		if (!arg1) {
11077		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "Assimp::Importer const & type is null", 0);
11078		return 0;
11079		}
11080		result = (Assimp::Importer )new Assimp::Importer((Assimp::Importer const &)arg1);
11081		jresult = (void *)result;
11082		return jresult;
11083		}
11084
11085
11086		SWIGEXPORT void SWIGSTDCALL CSharp_delete_Importer(void * jarg1) {
11087		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11088
11089		arg1 = (Assimp::Importer *)jarg1;
11090		delete arg1;
11091		}
11092
11093
11094		SWIGEXPORT int SWIGSTDCALL CSharp_Importer_GetPropertyInteger__SWIG_0(void * jarg1, char * jarg2, int jarg3) {
11095		int jresult ;
11096		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11097		char arg2 = (char ) 0 ;
11098		int arg3 ;
11099		int result;
11100
11101		arg1 = (Assimp::Importer *)jarg1;
11102		arg2 = (char *)jarg2;
11103		arg3 = (int)jarg3;
11104		result = (int)((Assimp::Importer const )arg1)->GetPropertyInteger((char const )arg2,arg3);
11105		jresult = result;
11106		return jresult;
11107		}
11108
11109
11110		SWIGEXPORT int SWIGSTDCALL CSharp_Importer_GetPropertyInteger__SWIG_1(void * jarg1, char * jarg2) {
11111		int jresult ;
11112		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11113		char arg2 = (char ) 0 ;
11114		int result;
11115
11116		arg1 = (Assimp::Importer *)jarg1;
11117		arg2 = (char *)jarg2;
11118		result = (int)((Assimp::Importer const )arg1)->GetPropertyInteger((char const )arg2);
11119		jresult = result;
11120		return jresult;
11121		}
11122
11123
11124		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_GetPropertyBool__SWIG_0(void * jarg1, char * jarg2, unsigned int jarg3) {
11125		unsigned int jresult ;
11126		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11127		char arg2 = (char ) 0 ;
11128		bool arg3 ;
11129		bool result;
11130
11131		arg1 = (Assimp::Importer *)jarg1;
11132		arg2 = (char *)jarg2;
11133		arg3 = jarg3 ? true : false;
11134		result = (bool)((Assimp::Importer const )arg1)->GetPropertyBool((char const )arg2,arg3);
11135		jresult = result;
11136		return jresult;
11137		}
11138
11139
11140		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_GetPropertyBool__SWIG_1(void * jarg1, char * jarg2) {
11141		unsigned int jresult ;
11142		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11143		char arg2 = (char ) 0 ;
11144		bool result;
11145
11146		arg1 = (Assimp::Importer *)jarg1;
11147		arg2 = (char *)jarg2;
11148		result = (bool)((Assimp::Importer const )arg1)->GetPropertyBool((char const )arg2);
11149		jresult = result;
11150		return jresult;
11151		}
11152
11153
11154		SWIGEXPORT float SWIGSTDCALL CSharp_Importer_GetPropertyFloat__SWIG_0(void * jarg1, char * jarg2, float jarg3) {
11155		float jresult ;
11156		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11157		char arg2 = (char ) 0 ;
11158		float arg3 ;
11159		float result;
11160
11161		arg1 = (Assimp::Importer *)jarg1;
11162		arg2 = (char *)jarg2;
11163		arg3 = (float)jarg3;
11164		result = (float)((Assimp::Importer const )arg1)->GetPropertyFloat((char const )arg2,arg3);
11165		jresult = result;
11166		return jresult;
11167		}
11168
11169
11170		SWIGEXPORT float SWIGSTDCALL CSharp_Importer_GetPropertyFloat__SWIG_1(void * jarg1, char * jarg2) {
11171		float jresult ;
11172		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11173		char arg2 = (char ) 0 ;
11174		float result;
11175
11176		arg1 = (Assimp::Importer *)jarg1;
11177		arg2 = (char *)jarg2;
11178		result = (float)((Assimp::Importer const )arg1)->GetPropertyFloat((char const )arg2);
11179		jresult = result;
11180		return jresult;
11181		}
11182
11183
11184		SWIGEXPORT char * SWIGSTDCALL CSharp_Importer_GetPropertyString__SWIG_0(void * jarg1, char * jarg2, char * jarg3) {
11185		char * jresult ;
11186		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11187		char arg2 = (char ) 0 ;
11188		std::string *arg3 = 0 ;
11189		std::string *result = 0 ;
11190
11191		arg1 = (Assimp::Importer *)jarg1;
11192		arg2 = (char *)jarg2;
11193		if (!jarg3) {
11194		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "null string", 0);
11195		return 0;
11196		}
11197		std::string arg3_str(jarg3);
11198		arg3 = &arg3_str;
11199		result = (std::string ) &((Assimp::Importer const )arg1)->GetPropertyString((char const )arg2,(std::string const &)arg3);
11200		jresult = SWIG_csharp_string_callback(result->c_str());
11201		return jresult;
11202		}
11203
11204
11205		SWIGEXPORT char * SWIGSTDCALL CSharp_Importer_GetPropertyString__SWIG_1(void * jarg1, char * jarg2) {
11206		char * jresult ;
11207		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11208		char arg2 = (char ) 0 ;
11209		std::string *result = 0 ;
11210
11211		arg1 = (Assimp::Importer *)jarg1;
11212		arg2 = (char *)jarg2;
11213		result = (std::string ) &((Assimp::Importer const )arg1)->GetPropertyString((char const *)arg2);
11214		jresult = SWIG_csharp_string_callback(result->c_str());
11215		return jresult;
11216		}
11217
11218
11219		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_IsDefaultIOHandler(void * jarg1) {
11220		unsigned int jresult ;
11221		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11222		bool result;
11223
11224		arg1 = (Assimp::Importer *)jarg1;
11225		result = (bool)((Assimp::Importer const *)arg1)->IsDefaultIOHandler();
11226		jresult = result;
11227		return jresult;
11228		}
11229
11230
11231		SWIGEXPORT void SWIGSTDCALL CSharp_Importer_SetProgressHandler(void * jarg1, void * jarg2) {
11232		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11233		Assimp::ProgressHandler arg2 = (Assimp::ProgressHandler ) 0 ;
11234
11235		arg1 = (Assimp::Importer *)jarg1;
11236		arg2 = (Assimp::ProgressHandler *)jarg2;
11237		(arg1)->SetProgressHandler(arg2);
11238		}
11239
11240
11241		SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_GetProgressHandler(void * jarg1) {
11242		void * jresult ;
11243		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11244		Assimp::ProgressHandler *result = 0 ;
11245
11246		arg1 = (Assimp::Importer *)jarg1;
11247		result = (Assimp::ProgressHandler )((Assimp::Importer const )arg1)->GetProgressHandler();
11248		jresult = (void *)result;
11249		return jresult;
11250		}
11251
11252
11253		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_IsDefaultProgressHandler(void * jarg1) {
11254		unsigned int jresult ;
11255		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11256		bool result;
11257
11258		arg1 = (Assimp::Importer *)jarg1;
11259		result = (bool)((Assimp::Importer const *)arg1)->IsDefaultProgressHandler();
11260		jresult = result;
11261		return jresult;
11262		}
11263
11264
11265		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_ValidateFlags(void * jarg1, unsigned int jarg2) {
11266		unsigned int jresult ;
11267		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11268		unsigned int arg2 ;
11269		bool result;
11270
11271		arg1 = (Assimp::Importer *)jarg1;
11272		arg2 = (unsigned int)jarg2;
11273		result = (bool)((Assimp::Importer const *)arg1)->ValidateFlags(arg2);
11274		jresult = result;
11275		return jresult;
11276		}
11277
11278
11279		SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_ReadFile__SWIG_0(void * jarg1, char * jarg2, unsigned int jarg3) {
11280		void * jresult ;
11281		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11282		char arg2 = (char ) 0 ;
11283		unsigned int arg3 ;
11284		aiScene *result = 0 ;
11285
11286		arg1 = (Assimp::Importer *)jarg1;
11287		arg2 = (char *)jarg2;
11288		arg3 = (unsigned int)jarg3;
11289		result = (aiScene )(arg1)->ReadFile((char const )arg2,arg3);
11290		jresult = (void *)result;
11291		return jresult;
11292		}
11293
11294
11295		SWIGEXPORT void SWIGSTDCALL CSharp_Importer_FreeScene(void * jarg1) {
11296		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11297
11298		arg1 = (Assimp::Importer *)jarg1;
11299		(arg1)->FreeScene();
11300		}
11301
11302
11303		SWIGEXPORT char * SWIGSTDCALL CSharp_Importer_GetErrorString(void * jarg1) {
11304		char * jresult ;
11305		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11306		char *result = 0 ;
11307
11308		arg1 = (Assimp::Importer *)jarg1;
11309		result = (char )((Assimp::Importer const )arg1)->GetErrorString();
11310		jresult = SWIG_csharp_string_callback((const char *)result);
11311		return jresult;
11312		}
11313
11314
11315		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_Importer_IsExtensionSupported__SWIG_0(void * jarg1, char * jarg2) {
11316		unsigned int jresult ;
11317		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11318		char arg2 = (char ) 0 ;
11319		bool result;
11320
11321		arg1 = (Assimp::Importer *)jarg1;
11322		arg2 = (char *)jarg2;
11323		result = (bool)((Assimp::Importer const )arg1)->IsExtensionSupported((char const )arg2);
11324		jresult = result;
11325		return jresult;
11326		}
11327
11328
11329		SWIGEXPORT void SWIGSTDCALL CSharp_Importer_GetExtensionList__SWIG_0(void * jarg1, void * jarg2) {
11330		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11331		aiString *arg2 = 0 ;
11332
11333		arg1 = (Assimp::Importer *)jarg1;
11334		arg2 = (aiString *)jarg2;
11335		if (!arg2) {
11336		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiString & type is null", 0);
11337		return ;
11338		}
11339		((Assimp::Importer const )arg1)->GetExtensionList(arg2);
11340		}
11341
11342
11343		SWIGEXPORT void SWIGSTDCALL CSharp_Importer_GetExtensionList__SWIG_1(void * jarg1, void * jarg2) {
11344		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11345		std::string *arg2 = 0 ;
11346
11347		arg1 = (Assimp::Importer *)jarg1;
11348		arg2 = (std::string *)jarg2;
11349		if (!arg2) {
11350		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::string & type is null", 0);
11351		return ;
11352		}
11353		((Assimp::Importer const )arg1)->GetExtensionList(arg2);
11354		}
11355
11356
11357		SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_GetScene(void * jarg1) {
11358		void * jresult ;
11359		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11360		aiScene *result = 0 ;
11361
11362		arg1 = (Assimp::Importer *)jarg1;
11363		result = (aiScene )((Assimp::Importer const )arg1)->GetScene();
11364		jresult = (void *)result;
11365		return jresult;
11366		}
11367
11368
11369		SWIGEXPORT void * SWIGSTDCALL CSharp_Importer_GetOrphanedScene(void * jarg1) {
11370		void * jresult ;
11371		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11372		aiScene *result = 0 ;
11373
11374		arg1 = (Assimp::Importer *)jarg1;
11375		result = (aiScene *)(arg1)->GetOrphanedScene();
11376		jresult = (void *)result;
11377		return jresult;
11378		}
11379
11380
11381		SWIGEXPORT void SWIGSTDCALL CSharp_Importer_GetMemoryRequirements(void * jarg1, void * jarg2) {
11382		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11383		aiMemoryInfo *arg2 = 0 ;
11384
11385		arg1 = (Assimp::Importer *)jarg1;
11386		arg2 = (aiMemoryInfo *)jarg2;
11387		if (!arg2) {
11388		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "aiMemoryInfo & type is null", 0);
11389		return ;
11390		}
11391		((Assimp::Importer const )arg1)->GetMemoryRequirements(arg2);
11392		}
11393
11394
11395		SWIGEXPORT void SWIGSTDCALL CSharp_Importer_SetExtraVerbose(void * jarg1, unsigned int jarg2) {
11396		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11397		bool arg2 ;
11398
11399		arg1 = (Assimp::Importer *)jarg1;
11400		arg2 = jarg2 ? true : false;
11401		(arg1)->SetExtraVerbose(arg2);
11402		}
11403
11404
11405		SWIGEXPORT char * SWIGSTDCALL CSharp_Importer_GetExtensionList__SWIG_2(void * jarg1) {
11406		char * jresult ;
11407		Assimp::Importer arg1 = (Assimp::Importer ) 0 ;
11408		std::string result;
11409
11410		arg1 = (Assimp::Importer *)jarg1;
11411		result = Assimp_Importer_GetExtensionList__SWIG_2(arg1);
11412		jresult = SWIG_csharp_string_callback((&result)->c_str());
11413		return jresult;
11414		}
11415
11416
11417		SWIGEXPORT void SWIGSTDCALL CSharp_delete_ProgressHandler(void * jarg1) {
11418		Assimp::ProgressHandler arg1 = (Assimp::ProgressHandler ) 0 ;
11419
11420		arg1 = (Assimp::ProgressHandler *)jarg1;
11421		delete arg1;
11422		}
11423
11424
11425		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_ProgressHandler_Update__SWIG_0(void * jarg1, float jarg2) {
11426		unsigned int jresult ;
11427		Assimp::ProgressHandler arg1 = (Assimp::ProgressHandler ) 0 ;
11428		float arg2 ;
11429		bool result;
11430
11431		arg1 = (Assimp::ProgressHandler *)jarg1;
11432		arg2 = (float)jarg2;
11433		result = (bool)(arg1)->Update(arg2);
11434		jresult = result;
11435		return jresult;
11436		}
11437
11438
11439		SWIGEXPORT unsigned int SWIGSTDCALL CSharp_ProgressHandler_Update__SWIG_1(void * jarg1) {
11440		unsigned int jresult ;
11441		Assimp::ProgressHandler arg1 = (Assimp::ProgressHandler ) 0 ;
11442		bool result;
11443
11444		arg1 = (Assimp::ProgressHandler *)jarg1;
11445		result = (bool)(arg1)->Update();
11446		jresult = result;
11447		return jresult;
11448	11800	}
11449	11801
11450	11802

14074	14426
14075	14427	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_Add(void * jarg1, void * jarg2) {
14076	14428	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14077		std::vector< aiColor4D * > *arg2 = 0 ;
	14429	std::vector< aiColor4t< float > * > *arg2 = 0 ;
14078	14430
14079	14431	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14080		arg2 = (std::vector< aiColor4D * > *)jarg2;
	14432	arg2 = (std::vector< aiColor4t< float > * > *)jarg2;
14081	14433	if (!arg2) {
14082		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4D * > const & type is null", 0);
	14434	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4t< float > * > const & type is null", 0);
14083	14435	return ;
14084	14436	}
14085		(arg1)->push_back((std::vector< aiColor4D * > const &)*arg2);
	14437	(arg1)->push_back((std::vector< aiColor4t< float > * > const &)*arg2);
14086	14438	}
14087	14439
14088	14440
14089	14441	SWIGEXPORT unsigned long SWIGSTDCALL CSharp_aiColor4DVectorVector_size(void * jarg1) {
14090	14442	unsigned long jresult ;
14091	14443	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14092		std::vector< std::vector< aiColor4D * > >::size_type result;
	14444	std::vector< std::vector< aiColor4t< float > * > >::size_type result;
14093	14445
14094	14446	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14095	14447	result = ((std::vector< std::vector< aiColor4D * > > const *)arg1)->size();

14101	14453	SWIGEXPORT unsigned long SWIGSTDCALL CSharp_aiColor4DVectorVector_capacity(void * jarg1) {
14102	14454	unsigned long jresult ;
14103	14455	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14104		std::vector< std::vector< aiColor4D * > >::size_type result;
	14456	std::vector< std::vector< aiColor4t< float > * > >::size_type result;
14105	14457
14106	14458	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14107	14459	result = ((std::vector< std::vector< aiColor4D * > > const *)arg1)->capacity();

14112	14464
14113	14465	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_reserve(void * jarg1, unsigned long jarg2) {
14114	14466	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14115		std::vector< std::vector< aiColor4D * > >::size_type arg2 ;
	14467	std::vector< std::vector< aiColor4t< float > * > >::size_type arg2 ;
14116	14468
14117	14469	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14118		arg2 = (std::vector< std::vector< aiColor4D * > >::size_type)jarg2;
	14470	arg2 = (std::vector< std::vector< aiColor4t< float > * > >::size_type)jarg2;
14119	14471	(arg1)->reserve(arg2);
14120	14472	}
14121	14473

14169	14521	void * jresult ;
14170	14522	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14171	14523	int arg2 ;
14172		std::vector< aiColor4D * > result;
	14524	std::vector< aiColor4t< float > * > result;
14173	14525
14174	14526	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14175	14527	arg2 = (int)jarg2;

14181	14533	return 0;
14182	14534	}
14183	14535
14184		jresult = new std::vector< aiColor4D * >((const std::vector< aiColor4D * > &)result);
	14536	jresult = new std::vector< aiColor4t< float > * >((const std::vector< aiColor4t< float > * > &)result);
14185	14537	return jresult;
14186	14538	}
14187	14539

14190	14542	void * jresult ;
14191	14543	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14192	14544	int arg2 ;
14193		std::vector< aiColor4D * > *result = 0 ;
	14545	std::vector< aiColor4t< float > * > *result = 0 ;
14194	14546
14195	14547	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14196	14548	arg2 = (int)jarg2;
14197	14549	try {
14198		result = (std::vector< aiColor4D * > *) &std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__getitem(arg1,arg2);
	14550	result = (std::vector< aiColor4t< float > * > *) &std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__getitem(arg1,arg2);
14199	14551	}
14200	14552	catch(std::out_of_range &_e) {
14201	14553	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

14210	14562	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_setitem(void * jarg1, int jarg2, void * jarg3) {
14211	14563	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14212	14564	int arg2 ;
14213		std::vector< aiColor4D * > *arg3 = 0 ;
	14565	std::vector< aiColor4t< float > * > *arg3 = 0 ;
14214	14566
14215	14567	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14216	14568	arg2 = (int)jarg2;
14217		arg3 = (std::vector< aiColor4D * > *)jarg3;
	14569	arg3 = (std::vector< aiColor4t< float > * > *)jarg3;
14218	14570	if (!arg3) {
14219		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4D * > const & type is null", 0);
	14571	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4t< float > * > const & type is null", 0);
14220	14572	return ;
14221	14573	}
14222	14574	try {
14223		std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__setitem(arg1,arg2,(std::vector< aiColor4D * > const &)*arg3);
	14575	std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__setitem(arg1,arg2,(std::vector< aiColor4t< float > * > const &)*arg3);
14224	14576	}
14225	14577	catch(std::out_of_range &_e) {
14226	14578	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

14232	14584
14233	14585	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_AddRange(void * jarg1, void * jarg2) {
14234	14586	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14235		std::vector< std::vector< aiColor4D * > > *arg2 = 0 ;
	14587	std::vector< std::vector< aiColor4t< float > * > > *arg2 = 0 ;
14236	14588
14237	14589	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14238		arg2 = (std::vector< std::vector< aiColor4D * > > *)jarg2;
	14590	arg2 = (std::vector< std::vector< aiColor4t< float > * > > *)jarg2;
14239	14591	if (!arg2) {
14240		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< std::vector< aiColor4D * > > const & type is null", 0);
	14592	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< std::vector< aiColor4t< float > * > > const & type is null", 0);
14241	14593	return ;
14242	14594	}
14243		std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__AddRange(arg1,(std::vector< std::vector< aiColor4D * > > const &)*arg2);
	14595	std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__AddRange(arg1,(std::vector< std::vector< aiColor4t< float > * > > const &)*arg2);
14244	14596	}
14245	14597
14246	14598

14249	14601	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14250	14602	int arg2 ;
14251	14603	int arg3 ;
14252		std::vector< std::vector< aiColor4D * > > *result = 0 ;
	14604	std::vector< std::vector< aiColor4t< float > * > > *result = 0 ;
14253	14605
14254	14606	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14255	14607	arg2 = (int)jarg2;
14256	14608	arg3 = (int)jarg3;
14257	14609	try {
14258		result = (std::vector< std::vector< aiColor4D * > > *)std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__GetRange(arg1,arg2,arg3);
	14610	result = (std::vector< std::vector< aiColor4t< float > * > > *)std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__GetRange(arg1,arg2,arg3);
14259	14611	}
14260	14612	catch(std::out_of_range &_e) {
14261	14613	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

14274	14626	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_Insert(void * jarg1, int jarg2, void * jarg3) {
14275	14627	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14276	14628	int arg2 ;
14277		std::vector< aiColor4D * > *arg3 = 0 ;
	14629	std::vector< aiColor4t< float > * > *arg3 = 0 ;
14278	14630
14279	14631	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14280	14632	arg2 = (int)jarg2;
14281		arg3 = (std::vector< aiColor4D * > *)jarg3;
	14633	arg3 = (std::vector< aiColor4t< float > * > *)jarg3;
14282	14634	if (!arg3) {
14283		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4D * > const & type is null", 0);
	14635	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4t< float > * > const & type is null", 0);
14284	14636	return ;
14285	14637	}
14286	14638	try {
14287		std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Insert(arg1,arg2,(std::vector< aiColor4D * > const &)*arg3);
	14639	std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Insert(arg1,arg2,(std::vector< aiColor4t< float > * > const &)*arg3);
14288	14640	}
14289	14641	catch(std::out_of_range &_e) {
14290	14642	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

14297	14649	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_InsertRange(void * jarg1, int jarg2, void * jarg3) {
14298	14650	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14299	14651	int arg2 ;
14300		std::vector< std::vector< aiColor4D * > > *arg3 = 0 ;
	14652	std::vector< std::vector< aiColor4t< float > * > > *arg3 = 0 ;
14301	14653
14302	14654	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14303	14655	arg2 = (int)jarg2;
14304		arg3 = (std::vector< std::vector< aiColor4D * > > *)jarg3;
	14656	arg3 = (std::vector< std::vector< aiColor4t< float > * > > *)jarg3;
14305	14657	if (!arg3) {
14306		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< std::vector< aiColor4D * > > const & type is null", 0);
	14658	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< std::vector< aiColor4t< float > * > > const & type is null", 0);
14307	14659	return ;
14308	14660	}
14309	14661	try {
14310		std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__InsertRange(arg1,arg2,(std::vector< std::vector< aiColor4D * > > const &)*arg3);
	14662	std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__InsertRange(arg1,arg2,(std::vector< std::vector< aiColor4t< float > * > > const &)*arg3);
14311	14663	}
14312	14664	catch(std::out_of_range &_e) {
14313	14665	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

14359	14711
14360	14712	SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4DVectorVector_Repeat(void * jarg1, int jarg2) {
14361	14713	void * jresult ;
	14714	std::vector< aiColor4t< float > * > *arg1 = 0 ;
	14715	int arg2 ;
	14716	std::vector< std::vector< aiColor4t< float > * > > *result = 0 ;
	14717
	14718	arg1 = (std::vector< aiColor4t< float > * > *)jarg1;
	14719	if (!arg1) {
	14720	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4t< float > * > const & type is null", 0);
	14721	return 0;
	14722	}
	14723	arg2 = (int)jarg2;
	14724	try {
	14725	result = (std::vector< std::vector< aiColor4t< float > * > > )std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Repeat((std::vector< aiColor4t< float > > const &)*arg1,arg2);
	14726	}
	14727	catch(std::out_of_range &_e) {
	14728	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	14729	return 0;
	14730	}
	14731
	14732	jresult = (void *)result;
	14733	return jresult;
	14734	}
	14735
	14736
	14737	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_Reverse__SWIG_0(void * jarg1) {
	14738	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
	14739
	14740	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
	14741	std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Reverse__SWIG_0(arg1);
	14742	}
	14743
	14744
	14745	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_Reverse__SWIG_1(void * jarg1, int jarg2, int jarg3) {
	14746	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
	14747	int arg2 ;
	14748	int arg3 ;
	14749
	14750	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
	14751	arg2 = (int)jarg2;
	14752	arg3 = (int)jarg3;
	14753	try {
	14754	std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Reverse__SWIG_1(arg1,arg2,arg3);
	14755	}
	14756	catch(std::out_of_range &_e) {
	14757	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	14758	return ;
	14759	}
	14760	catch(std::invalid_argument &_e) {
	14761	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentException, (&_e)->what(), "");
	14762	return ;
	14763	}
	14764
	14765	}
	14766
	14767
	14768	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_SetRange(void * jarg1, int jarg2, void * jarg3) {
	14769	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
	14770	int arg2 ;
	14771	std::vector< std::vector< aiColor4t< float > * > > *arg3 = 0 ;
	14772
	14773	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
	14774	arg2 = (int)jarg2;
	14775	arg3 = (std::vector< std::vector< aiColor4t< float > * > > *)jarg3;
	14776	if (!arg3) {
	14777	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< std::vector< aiColor4t< float > * > > const & type is null", 0);
	14778	return ;
	14779	}
	14780	try {
	14781	std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__SetRange(arg1,arg2,(std::vector< std::vector< aiColor4t< float > * > > const &)*arg3);
	14782	}
	14783	catch(std::out_of_range &_e) {
	14784	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	14785	return ;
	14786	}
	14787
	14788	}
	14789
	14790
	14791	SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiColor4DVectorVector(void * jarg1) {
	14792	std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
	14793
	14794	arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
	14795	delete arg1;
	14796	}
	14797
	14798
	14799	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_Clear(void * jarg1) {
	14800	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	14801
	14802	arg1 = (std::vector< aiColor4D * > *)jarg1;
	14803	(arg1)->clear();
	14804	}
	14805
	14806
	14807	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_Add(void * jarg1, void * jarg2) {
	14808	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	14809	aiColor4t< float > **arg2 = 0 ;
	14810	aiColor4t< float > *temp2 = 0 ;
	14811
	14812	arg1 = (std::vector< aiColor4D * > *)jarg1;
	14813	temp2 = (aiColor4t< float > *)jarg2;
	14814	arg2 = (aiColor4t< float > **)&temp2;
	14815	(arg1)->push_back((aiColor4t< float > const &)arg2);
	14816	}
	14817
	14818
	14819	SWIGEXPORT unsigned long SWIGSTDCALL CSharp_aiColor4DVector_size(void * jarg1) {
	14820	unsigned long jresult ;
	14821	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	14822	std::vector< aiColor4t< float > * >::size_type result;
	14823
	14824	arg1 = (std::vector< aiColor4D * > *)jarg1;
	14825	result = ((std::vector< aiColor4D * > const *)arg1)->size();
	14826	jresult = (unsigned long)result;
	14827	return jresult;
	14828	}
	14829
	14830
	14831	SWIGEXPORT unsigned long SWIGSTDCALL CSharp_aiColor4DVector_capacity(void * jarg1) {
	14832	unsigned long jresult ;
	14833	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	14834	std::vector< aiColor4t< float > * >::size_type result;
	14835
	14836	arg1 = (std::vector< aiColor4D * > *)jarg1;
	14837	result = ((std::vector< aiColor4D * > const *)arg1)->capacity();
	14838	jresult = (unsigned long)result;
	14839	return jresult;
	14840	}
	14841
	14842
	14843	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_reserve(void * jarg1, unsigned long jarg2) {
	14844	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	14845	std::vector< aiColor4t< float > * >::size_type arg2 ;
	14846
	14847	arg1 = (std::vector< aiColor4D * > *)jarg1;
	14848	arg2 = (std::vector< aiColor4t< float > * >::size_type)jarg2;
	14849	(arg1)->reserve(arg2);
	14850	}
	14851
	14852
	14853	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4DVector__SWIG_0() {
	14854	void * jresult ;
	14855	std::vector< aiColor4D * > *result = 0 ;
	14856
	14857	result = (std::vector< aiColor4D * > )new std::vector< aiColor4D >();
	14858	jresult = (void *)result;
	14859	return jresult;
	14860	}
	14861
	14862
	14863	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4DVector__SWIG_1(void * jarg1) {
	14864	void * jresult ;
14362	14865	std::vector< aiColor4D * > *arg1 = 0 ;
14363		int arg2 ;
14364		std::vector< std::vector< aiColor4D * > > *result = 0 ;
	14866	std::vector< aiColor4D * > *result = 0 ;
14365	14867
14366	14868	arg1 = (std::vector< aiColor4D * > *)jarg1;
14367	14869	if (!arg1) {
14368	14870	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4D * > const & type is null", 0);
14369	14871	return 0;
14370	14872	}
14371		arg2 = (int)jarg2;
14372		try {
14373		result = (std::vector< std::vector< aiColor4D * > > )std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Repeat((std::vector< aiColor4D > const &)*arg1,arg2);
14374		}
14375		catch(std::out_of_range &_e) {
14376		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14377		return 0;
14378		}
14379
14380		jresult = (void *)result;
14381		return jresult;
14382		}
14383
14384
14385		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_Reverse__SWIG_0(void * jarg1) {
14386		std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14387
14388		arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14389		std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Reverse__SWIG_0(arg1);
14390		}
14391
14392
14393		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_Reverse__SWIG_1(void * jarg1, int jarg2, int jarg3) {
14394		std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
	14873	result = (std::vector< aiColor4D * > )new std::vector< aiColor4D >((std::vector< aiColor4D * > const &)*arg1);
	14874	jresult = (void *)result;
	14875	return jresult;
	14876	}
	14877
	14878
	14879	SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4DVector__SWIG_2(int jarg1) {
	14880	void * jresult ;
	14881	int arg1 ;
	14882	std::vector< aiColor4D * > *result = 0 ;
	14883
	14884	arg1 = (int)jarg1;
	14885	try {
	14886	result = (std::vector< aiColor4D * > *)new_std_vector_Sl_aiColor4D_Sm__Sg___SWIG_2(arg1);
	14887	}
	14888	catch(std::out_of_range &_e) {
	14889	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	14890	return 0;
	14891	}
	14892
	14893	jresult = (void *)result;
	14894	return jresult;
	14895	}
	14896
	14897
	14898	SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4DVector_getitemcopy(void * jarg1, int jarg2) {
	14899	void * jresult ;
	14900	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	14901	int arg2 ;
	14902	aiColor4t< float > *result = 0 ;
	14903
	14904	arg1 = (std::vector< aiColor4D * > *)jarg1;
	14905	arg2 = (int)jarg2;
	14906	try {
	14907	result = (aiColor4t< float > *)std_vector_Sl_aiColor4D_Sm__Sg__getitemcopy(arg1,arg2);
	14908	}
	14909	catch(std::out_of_range &_e) {
	14910	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	14911	return 0;
	14912	}
	14913
	14914	jresult = (void *)result;
	14915	return jresult;
	14916	}
	14917
	14918
	14919	SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4DVector_getitem(void * jarg1, int jarg2) {
	14920	void * jresult ;
	14921	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	14922	int arg2 ;
	14923	aiColor4t< float > **result = 0 ;
	14924
	14925	arg1 = (std::vector< aiColor4D * > *)jarg1;
	14926	arg2 = (int)jarg2;
	14927	try {
	14928	result = (aiColor4t< float > **) &std_vector_Sl_aiColor4D_Sm__Sg__getitem(arg1,arg2);
	14929	}
	14930	catch(std::out_of_range &_e) {
	14931	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	14932	return 0;
	14933	}
	14934
	14935	jresult = (void )result;
	14936	return jresult;
	14937	}
	14938
	14939
	14940	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_setitem(void * jarg1, int jarg2, void * jarg3) {
	14941	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	14942	int arg2 ;
	14943	aiColor4t< float > **arg3 = 0 ;
	14944	aiColor4t< float > *temp3 = 0 ;
	14945
	14946	arg1 = (std::vector< aiColor4D * > *)jarg1;
	14947	arg2 = (int)jarg2;
	14948	temp3 = (aiColor4t< float > *)jarg3;
	14949	arg3 = (aiColor4t< float > **)&temp3;
	14950	try {
	14951	std_vector_Sl_aiColor4D_Sm__Sg__setitem(arg1,arg2,(aiColor4t< float > const &)arg3);
	14952	}
	14953	catch(std::out_of_range &_e) {
	14954	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	14955	return ;
	14956	}
	14957
	14958	}
	14959
	14960
	14961	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_AddRange(void * jarg1, void * jarg2) {
	14962	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	14963	std::vector< aiColor4t< float > * > *arg2 = 0 ;
	14964
	14965	arg1 = (std::vector< aiColor4D * > *)jarg1;
	14966	arg2 = (std::vector< aiColor4t< float > * > *)jarg2;
	14967	if (!arg2) {
	14968	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4t< float > * > const & type is null", 0);
	14969	return ;
	14970	}
	14971	std_vector_Sl_aiColor4D_Sm__Sg__AddRange(arg1,(std::vector< aiColor4t< float > * > const &)*arg2);
	14972	}
	14973
	14974
	14975	SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4DVector_GetRange(void * jarg1, int jarg2, int jarg3) {
	14976	void * jresult ;
	14977	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14395	14978	int arg2 ;
14396	14979	int arg3 ;
14397
14398		arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
	14980	std::vector< aiColor4t< float > * > *result = 0 ;
	14981
	14982	arg1 = (std::vector< aiColor4D * > *)jarg1;
14399	14983	arg2 = (int)jarg2;
14400	14984	arg3 = (int)jarg3;
14401	14985	try {
14402		std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__Reverse__SWIG_1(arg1,arg2,arg3);
14403		}
14404		catch(std::out_of_range &_e) {
14405		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14406		return ;
	14986	result = (std::vector< aiColor4t< float > * > *)std_vector_Sl_aiColor4D_Sm__Sg__GetRange(arg1,arg2,arg3);
	14987	}
	14988	catch(std::out_of_range &_e) {
	14989	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	14990	return 0;
14407	14991	}
14408	14992	catch(std::invalid_argument &_e) {
14409	14993	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentException, (&_e)->what(), "");
14410		return ;
14411		}
14412
14413		}
14414
14415
14416		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVectorVector_SetRange(void * jarg1, int jarg2, void * jarg3) {
14417		std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14418		int arg2 ;
14419		std::vector< std::vector< aiColor4D * > > *arg3 = 0 ;
14420
14421		arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14422		arg2 = (int)jarg2;
14423		arg3 = (std::vector< std::vector< aiColor4D * > > *)jarg3;
	14994	return 0;
	14995	}
	14996
	14997	jresult = (void *)result;
	14998	return jresult;
	14999	}
	15000
	15001
	15002	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_Insert(void * jarg1, int jarg2, void * jarg3) {
	15003	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	15004	int arg2 ;
	15005	aiColor4t< float > **arg3 = 0 ;
	15006	aiColor4t< float > *temp3 = 0 ;
	15007
	15008	arg1 = (std::vector< aiColor4D * > *)jarg1;
	15009	arg2 = (int)jarg2;
	15010	temp3 = (aiColor4t< float > *)jarg3;
	15011	arg3 = (aiColor4t< float > **)&temp3;
	15012	try {
	15013	std_vector_Sl_aiColor4D_Sm__Sg__Insert(arg1,arg2,(aiColor4t< float > const &)arg3);
	15014	}
	15015	catch(std::out_of_range &_e) {
	15016	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	15017	return ;
	15018	}
	15019
	15020	}
	15021
	15022
	15023	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_InsertRange(void * jarg1, int jarg2, void * jarg3) {
	15024	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	15025	int arg2 ;
	15026	std::vector< aiColor4t< float > * > *arg3 = 0 ;
	15027
	15028	arg1 = (std::vector< aiColor4D * > *)jarg1;
	15029	arg2 = (int)jarg2;
	15030	arg3 = (std::vector< aiColor4t< float > * > *)jarg3;
14424	15031	if (!arg3) {
14425		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< std::vector< aiColor4D * > > const & type is null", 0);
	15032	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4t< float > * > const & type is null", 0);
14426	15033	return ;
14427	15034	}
14428	15035	try {
14429		std_vector_Sl_std_vector_Sl_aiColor4D_Sm__Sg__Sg__SetRange(arg1,arg2,(std::vector< std::vector< aiColor4D * > > const &)*arg3);
14430		}
14431		catch(std::out_of_range &_e) {
14432		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14433		return ;
14434		}
14435
14436		}
14437
14438
14439		SWIGEXPORT void SWIGSTDCALL CSharp_delete_aiColor4DVectorVector(void * jarg1) {
14440		std::vector< std::vector< aiColor4D * > > arg1 = (std::vector< std::vector< aiColor4D > > *) 0 ;
14441
14442		arg1 = (std::vector< std::vector< aiColor4D * > > *)jarg1;
14443		delete arg1;
14444		}
14445
14446
14447		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_Clear(void * jarg1) {
	15036	std_vector_Sl_aiColor4D_Sm__Sg__InsertRange(arg1,arg2,(std::vector< aiColor4t< float > * > const &)*arg3);
	15037	}
	15038	catch(std::out_of_range &_e) {
	15039	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	15040	return ;
	15041	}
	15042
	15043	}
	15044
	15045
	15046	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_RemoveAt(void * jarg1, int jarg2) {
14448	15047	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
	15048	int arg2 ;
14449	15049
14450	15050	arg1 = (std::vector< aiColor4D * > *)jarg1;
14451		(arg1)->clear();
14452		}
14453
14454
14455		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_Add(void * jarg1, void * jarg2) {
	15051	arg2 = (int)jarg2;
	15052	try {
	15053	std_vector_Sl_aiColor4D_Sm__Sg__RemoveAt(arg1,arg2);
	15054	}
	15055	catch(std::out_of_range &_e) {
	15056	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	15057	return ;
	15058	}
	15059
	15060	}
	15061
	15062
	15063	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_RemoveRange(void * jarg1, int jarg2, int jarg3) {
14456	15064	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14457		aiColor4D **arg2 = 0 ;
14458		aiColor4D *temp2 = 0 ;
	15065	int arg2 ;
	15066	int arg3 ;
14459	15067
14460	15068	arg1 = (std::vector< aiColor4D * > *)jarg1;
14461		temp2 = (aiColor4D *)jarg2;
14462		arg2 = (aiColor4D **)&temp2;
14463		(arg1)->push_back((aiColor4D const &)arg2);
14464		}
14465
14466
14467		SWIGEXPORT unsigned long SWIGSTDCALL CSharp_aiColor4DVector_size(void * jarg1) {
14468		unsigned long jresult ;
14469		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14470		std::vector< aiColor4D * >::size_type result;
14471
14472		arg1 = (std::vector< aiColor4D * > *)jarg1;
14473		result = ((std::vector< aiColor4D * > const *)arg1)->size();
14474		jresult = (unsigned long)result;
14475		return jresult;
14476		}
14477
14478
14479		SWIGEXPORT unsigned long SWIGSTDCALL CSharp_aiColor4DVector_capacity(void * jarg1) {
14480		unsigned long jresult ;
14481		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14482		std::vector< aiColor4D * >::size_type result;
14483
14484		arg1 = (std::vector< aiColor4D * > *)jarg1;
14485		result = ((std::vector< aiColor4D * > const *)arg1)->capacity();
14486		jresult = (unsigned long)result;
14487		return jresult;
14488		}
14489
14490
14491		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_reserve(void * jarg1, unsigned long jarg2) {
14492		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14493		std::vector< aiColor4D * >::size_type arg2 ;
14494
14495		arg1 = (std::vector< aiColor4D * > *)jarg1;
14496		arg2 = (std::vector< aiColor4D * >::size_type)jarg2;
14497		(arg1)->reserve(arg2);
14498		}
14499
14500
14501		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4DVector__SWIG_0() {
14502		void * jresult ;
14503		std::vector< aiColor4D * > *result = 0 ;
14504
14505		result = (std::vector< aiColor4D * > )new std::vector< aiColor4D >();
14506		jresult = (void *)result;
14507		return jresult;
14508		}
14509
14510
14511		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4DVector__SWIG_1(void * jarg1) {
14512		void * jresult ;
14513		std::vector< aiColor4D * > *arg1 = 0 ;
14514		std::vector< aiColor4D * > *result = 0 ;
14515
14516		arg1 = (std::vector< aiColor4D * > *)jarg1;
14517		if (!arg1) {
14518		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4D * > const & type is null", 0);
14519		return 0;
14520		}
14521		result = (std::vector< aiColor4D * > )new std::vector< aiColor4D >((std::vector< aiColor4D * > const &)*arg1);
14522		jresult = (void *)result;
14523		return jresult;
14524		}
14525
14526
14527		SWIGEXPORT void * SWIGSTDCALL CSharp_new_aiColor4DVector__SWIG_2(int jarg1) {
14528		void * jresult ;
14529		int arg1 ;
14530		std::vector< aiColor4D * > *result = 0 ;
14531
14532		arg1 = (int)jarg1;
14533		try {
14534		result = (std::vector< aiColor4D * > *)new_std_vector_Sl_aiColor4D_Sm__Sg___SWIG_2(arg1);
14535		}
14536		catch(std::out_of_range &_e) {
14537		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14538		return 0;
14539		}
14540
14541		jresult = (void *)result;
14542		return jresult;
14543		}
14544
14545
14546		SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4DVector_getitemcopy(void * jarg1, int jarg2) {
14547		void * jresult ;
14548		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14549		int arg2 ;
14550		aiColor4D *result = 0 ;
14551
14552		arg1 = (std::vector< aiColor4D * > *)jarg1;
14553		arg2 = (int)jarg2;
14554		try {
14555		result = (aiColor4D *)std_vector_Sl_aiColor4D_Sm__Sg__getitemcopy(arg1,arg2);
14556		}
14557		catch(std::out_of_range &_e) {
14558		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14559		return 0;
14560		}
14561
14562		jresult = (void *)result;
14563		return jresult;
14564		}
14565
14566
14567		SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4DVector_getitem(void * jarg1, int jarg2) {
14568		void * jresult ;
14569		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14570		int arg2 ;
14571		aiColor4D **result = 0 ;
14572
14573		arg1 = (std::vector< aiColor4D * > *)jarg1;
14574		arg2 = (int)jarg2;
14575		try {
14576		result = (aiColor4D **) &std_vector_Sl_aiColor4D_Sm__Sg__getitem(arg1,arg2);
14577		}
14578		catch(std::out_of_range &_e) {
14579		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14580		return 0;
14581		}
14582
14583		jresult = (void )result;
14584		return jresult;
14585		}
14586
14587
14588		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_setitem(void * jarg1, int jarg2, void * jarg3) {
14589		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14590		int arg2 ;
14591		aiColor4D **arg3 = 0 ;
14592		aiColor4D *temp3 = 0 ;
14593
14594		arg1 = (std::vector< aiColor4D * > *)jarg1;
14595		arg2 = (int)jarg2;
14596		temp3 = (aiColor4D *)jarg3;
14597		arg3 = (aiColor4D **)&temp3;
14598		try {
14599		std_vector_Sl_aiColor4D_Sm__Sg__setitem(arg1,arg2,(aiColor4D const &)arg3);
14600		}
14601		catch(std::out_of_range &_e) {
14602		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14603		return ;
14604		}
14605
14606		}
14607
14608
14609		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_AddRange(void * jarg1, void * jarg2) {
14610		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14611		std::vector< aiColor4D * > *arg2 = 0 ;
14612
14613		arg1 = (std::vector< aiColor4D * > *)jarg1;
14614		arg2 = (std::vector< aiColor4D * > *)jarg2;
14615		if (!arg2) {
14616		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4D * > const & type is null", 0);
14617		return ;
14618		}
14619		std_vector_Sl_aiColor4D_Sm__Sg__AddRange(arg1,(std::vector< aiColor4D * > const &)*arg2);
14620		}
14621
14622
14623		SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4DVector_GetRange(void * jarg1, int jarg2, int jarg3) {
14624		void * jresult ;
14625		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14626		int arg2 ;
14627		int arg3 ;
14628		std::vector< aiColor4D * > *result = 0 ;
14629
14630		arg1 = (std::vector< aiColor4D * > *)jarg1;
14631	15069	arg2 = (int)jarg2;
14632	15070	arg3 = (int)jarg3;
14633	15071	try {
14634		result = (std::vector< aiColor4D * > *)std_vector_Sl_aiColor4D_Sm__Sg__GetRange(arg1,arg2,arg3);
14635		}
14636		catch(std::out_of_range &_e) {
14637		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14638		return 0;
	15072	std_vector_Sl_aiColor4D_Sm__Sg__RemoveRange(arg1,arg2,arg3);
	15073	}
	15074	catch(std::out_of_range &_e) {
	15075	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	15076	return ;
14639	15077	}
14640	15078	catch(std::invalid_argument &_e) {
14641	15079	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentException, (&_e)->what(), "");
14642		return 0;
14643		}
14644
14645		jresult = (void *)result;
14646		return jresult;
14647		}
14648
14649
14650		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_Insert(void * jarg1, int jarg2, void * jarg3) {
	15080	return ;
	15081	}
	15082
	15083	}
	15084
	15085
	15086	SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4DVector_Repeat(void * jarg1, int jarg2) {
	15087	void * jresult ;
	15088	aiColor4t< float > **arg1 = 0 ;
	15089	int arg2 ;
	15090	aiColor4t< float > *temp1 = 0 ;
	15091	std::vector< aiColor4t< float > * > *result = 0 ;
	15092
	15093	temp1 = (aiColor4t< float > *)jarg1;
	15094	arg1 = (aiColor4t< float > **)&temp1;
	15095	arg2 = (int)jarg2;
	15096	try {
	15097	result = (std::vector< aiColor4t< float > * > )std_vector_Sl_aiColor4D_Sm__Sg__Repeat((aiColor4t< float > const &)*arg1,arg2);
	15098	}
	15099	catch(std::out_of_range &_e) {
	15100	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
	15101	return 0;
	15102	}
	15103
	15104	jresult = (void *)result;
	15105	return jresult;
	15106	}
	15107
	15108
	15109	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_Reverse__SWIG_0(void * jarg1) {
14651	15110	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14652		int arg2 ;
14653		aiColor4D **arg3 = 0 ;
14654		aiColor4D *temp3 = 0 ;
14655	15111
14656	15112	arg1 = (std::vector< aiColor4D * > *)jarg1;
14657		arg2 = (int)jarg2;
14658		temp3 = (aiColor4D *)jarg3;
14659		arg3 = (aiColor4D **)&temp3;
14660		try {
14661		std_vector_Sl_aiColor4D_Sm__Sg__Insert(arg1,arg2,(aiColor4D const &)arg3);
14662		}
14663		catch(std::out_of_range &_e) {
14664		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14665		return ;
14666		}
14667
14668		}
14669
14670
14671		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_InsertRange(void * jarg1, int jarg2, void * jarg3) {
	15113	std_vector_Sl_aiColor4D_Sm__Sg__Reverse__SWIG_0(arg1);
	15114	}
	15115
	15116
	15117	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_Reverse__SWIG_1(void * jarg1, int jarg2, int jarg3) {
14672	15118	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14673	15119	int arg2 ;
14674		std::vector< aiColor4D * > *arg3 = 0 ;
	15120	int arg3 ;
14675	15121
14676	15122	arg1 = (std::vector< aiColor4D * > *)jarg1;
14677	15123	arg2 = (int)jarg2;
14678		arg3 = (std::vector< aiColor4D * > *)jarg3;
14679		if (!arg3) {
14680		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4D * > const & type is null", 0);
14681		return ;
14682		}
14683		try {
14684		std_vector_Sl_aiColor4D_Sm__Sg__InsertRange(arg1,arg2,(std::vector< aiColor4D * > const &)*arg3);
14685		}
14686		catch(std::out_of_range &_e) {
14687		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14688		return ;
14689		}
14690
14691		}
14692
14693
14694		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_RemoveAt(void * jarg1, int jarg2) {
14695		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14696		int arg2 ;
14697
14698		arg1 = (std::vector< aiColor4D * > *)jarg1;
14699		arg2 = (int)jarg2;
14700		try {
14701		std_vector_Sl_aiColor4D_Sm__Sg__RemoveAt(arg1,arg2);
14702		}
14703		catch(std::out_of_range &_e) {
14704		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14705		return ;
14706		}
14707
14708		}
14709
14710
14711		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_RemoveRange(void * jarg1, int jarg2, int jarg3) {
14712		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14713		int arg2 ;
14714		int arg3 ;
14715
14716		arg1 = (std::vector< aiColor4D * > *)jarg1;
14717		arg2 = (int)jarg2;
14718	15124	arg3 = (int)jarg3;
14719	15125	try {
14720		std_vector_Sl_aiColor4D_Sm__Sg__RemoveRange(arg1,arg2,arg3);
	15126	std_vector_Sl_aiColor4D_Sm__Sg__Reverse__SWIG_1(arg1,arg2,arg3);
14721	15127	}
14722	15128	catch(std::out_of_range &_e) {
14723	15129	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

14731	15137	}
14732	15138
14733	15139
14734		SWIGEXPORT void * SWIGSTDCALL CSharp_aiColor4DVector_Repeat(void * jarg1, int jarg2) {
14735		void * jresult ;
14736		aiColor4D **arg1 = 0 ;
14737		int arg2 ;
14738		aiColor4D *temp1 = 0 ;
14739		std::vector< aiColor4D * > *result = 0 ;
14740
14741		temp1 = (aiColor4D *)jarg1;
14742		arg1 = (aiColor4D **)&temp1;
14743		arg2 = (int)jarg2;
14744		try {
14745		result = (std::vector< aiColor4D * > )std_vector_Sl_aiColor4D_Sm__Sg__Repeat((aiColor4D const &)*arg1,arg2);
14746		}
14747		catch(std::out_of_range &_e) {
14748		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14749		return 0;
14750		}
14751
14752		jresult = (void *)result;
14753		return jresult;
14754		}
14755
14756
14757		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_Reverse__SWIG_0(void * jarg1) {
14758		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14759
14760		arg1 = (std::vector< aiColor4D * > *)jarg1;
14761		std_vector_Sl_aiColor4D_Sm__Sg__Reverse__SWIG_0(arg1);
14762		}
14763
14764
14765		SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_Reverse__SWIG_1(void * jarg1, int jarg2, int jarg3) {
14766		std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14767		int arg2 ;
14768		int arg3 ;
14769
14770		arg1 = (std::vector< aiColor4D * > *)jarg1;
14771		arg2 = (int)jarg2;
14772		arg3 = (int)jarg3;
14773		try {
14774		std_vector_Sl_aiColor4D_Sm__Sg__Reverse__SWIG_1(arg1,arg2,arg3);
14775		}
14776		catch(std::out_of_range &_e) {
14777		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());
14778		return ;
14779		}
14780		catch(std::invalid_argument &_e) {
14781		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentException, (&_e)->what(), "");
14782		return ;
14783		}
14784
14785		}
14786
14787
14788	15140	SWIGEXPORT void SWIGSTDCALL CSharp_aiColor4DVector_SetRange(void * jarg1, int jarg2, void * jarg3) {
14789	15141	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14790	15142	int arg2 ;
14791		std::vector< aiColor4D * > *arg3 = 0 ;
	15143	std::vector< aiColor4t< float > * > *arg3 = 0 ;
14792	15144
14793	15145	arg1 = (std::vector< aiColor4D * > *)jarg1;
14794	15146	arg2 = (int)jarg2;
14795		arg3 = (std::vector< aiColor4D * > *)jarg3;
	15147	arg3 = (std::vector< aiColor4t< float > * > *)jarg3;
14796	15148	if (!arg3) {
14797		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4D * > const & type is null", 0);
	15149	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiColor4t< float > * > const & type is null", 0);
14798	15150	return ;
14799	15151	}
14800	15152	try {
14801		std_vector_Sl_aiColor4D_Sm__Sg__SetRange(arg1,arg2,(std::vector< aiColor4D * > const &)*arg3);
	15153	std_vector_Sl_aiColor4D_Sm__Sg__SetRange(arg1,arg2,(std::vector< aiColor4t< float > * > const &)*arg3);
14802	15154	}
14803	15155	catch(std::out_of_range &_e) {
14804	15156	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

14811	15163	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiColor4DVector_Contains(void * jarg1, void * jarg2) {
14812	15164	unsigned int jresult ;
14813	15165	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14814		aiColor4D **arg2 = 0 ;
14815		aiColor4D *temp2 = 0 ;
	15166	aiColor4t< float > **arg2 = 0 ;
	15167	aiColor4t< float > *temp2 = 0 ;
14816	15168	bool result;
14817	15169
14818	15170	arg1 = (std::vector< aiColor4D * > *)jarg1;
14819		temp2 = (aiColor4D *)jarg2;
14820		arg2 = (aiColor4D **)&temp2;
14821		result = (bool)std_vector_Sl_aiColor4D_Sm__Sg__Contains(arg1,(aiColor4D const &)arg2);
	15171	temp2 = (aiColor4t< float > *)jarg2;
	15172	arg2 = (aiColor4t< float > **)&temp2;
	15173	result = (bool)std_vector_Sl_aiColor4D_Sm__Sg__Contains(arg1,(aiColor4t< float > const &)arg2);
14822	15174	jresult = result;
14823	15175	return jresult;
14824	15176	}

14827	15179	SWIGEXPORT int SWIGSTDCALL CSharp_aiColor4DVector_IndexOf(void * jarg1, void * jarg2) {
14828	15180	int jresult ;
14829	15181	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14830		aiColor4D **arg2 = 0 ;
14831		aiColor4D *temp2 = 0 ;
	15182	aiColor4t< float > **arg2 = 0 ;
	15183	aiColor4t< float > *temp2 = 0 ;
14832	15184	int result;
14833	15185
14834	15186	arg1 = (std::vector< aiColor4D * > *)jarg1;
14835		temp2 = (aiColor4D *)jarg2;
14836		arg2 = (aiColor4D **)&temp2;
14837		result = (int)std_vector_Sl_aiColor4D_Sm__Sg__IndexOf(arg1,(aiColor4D const &)arg2);
	15187	temp2 = (aiColor4t< float > *)jarg2;
	15188	arg2 = (aiColor4t< float > **)&temp2;
	15189	result = (int)std_vector_Sl_aiColor4D_Sm__Sg__IndexOf(arg1,(aiColor4t< float > const &)arg2);
14838	15190	jresult = result;
14839	15191	return jresult;
14840	15192	}

14843	15195	SWIGEXPORT int SWIGSTDCALL CSharp_aiColor4DVector_LastIndexOf(void * jarg1, void * jarg2) {
14844	15196	int jresult ;
14845	15197	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14846		aiColor4D **arg2 = 0 ;
14847		aiColor4D *temp2 = 0 ;
	15198	aiColor4t< float > **arg2 = 0 ;
	15199	aiColor4t< float > *temp2 = 0 ;
14848	15200	int result;
14849	15201
14850	15202	arg1 = (std::vector< aiColor4D * > *)jarg1;
14851		temp2 = (aiColor4D *)jarg2;
14852		arg2 = (aiColor4D **)&temp2;
14853		result = (int)std_vector_Sl_aiColor4D_Sm__Sg__LastIndexOf(arg1,(aiColor4D const &)arg2);
	15203	temp2 = (aiColor4t< float > *)jarg2;
	15204	arg2 = (aiColor4t< float > **)&temp2;
	15205	result = (int)std_vector_Sl_aiColor4D_Sm__Sg__LastIndexOf(arg1,(aiColor4t< float > const &)arg2);
14854	15206	jresult = result;
14855	15207	return jresult;
14856	15208	}

14859	15211	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiColor4DVector_Remove(void * jarg1, void * jarg2) {
14860	15212	unsigned int jresult ;
14861	15213	std::vector< aiColor4D * > arg1 = (std::vector< aiColor4D > *) 0 ;
14862		aiColor4D **arg2 = 0 ;
14863		aiColor4D *temp2 = 0 ;
	15214	aiColor4t< float > **arg2 = 0 ;
	15215	aiColor4t< float > *temp2 = 0 ;
14864	15216	bool result;
14865	15217
14866	15218	arg1 = (std::vector< aiColor4D * > *)jarg1;
14867		temp2 = (aiColor4D *)jarg2;
14868		arg2 = (aiColor4D **)&temp2;
14869		result = (bool)std_vector_Sl_aiColor4D_Sm__Sg__Remove(arg1,(aiColor4D const &)arg2);
	15219	temp2 = (aiColor4t< float > *)jarg2;
	15220	arg2 = (aiColor4t< float > **)&temp2;
	15221	result = (bool)std_vector_Sl_aiColor4D_Sm__Sg__Remove(arg1,(aiColor4t< float > const &)arg2);
14870	15222	jresult = result;
14871	15223	return jresult;
14872	15224	}

19250	19602
19251	19603	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3DVector_Add(void * jarg1, void * jarg2) {
19252	19604	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19253		aiVector3D **arg2 = 0 ;
19254		aiVector3D *temp2 = 0 ;
	19605	aiVector3t< float > **arg2 = 0 ;
	19606	aiVector3t< float > *temp2 = 0 ;
19255	19607
19256	19608	arg1 = (std::vector< aiVector3D * > *)jarg1;
19257		temp2 = (aiVector3D *)jarg2;
19258		arg2 = (aiVector3D **)&temp2;
19259		(arg1)->push_back((aiVector3D const &)arg2);
	19609	temp2 = (aiVector3t< float > *)jarg2;
	19610	arg2 = (aiVector3t< float > **)&temp2;
	19611	(arg1)->push_back((aiVector3t< float > const &)arg2);
19260	19612	}
19261	19613
19262	19614
19263	19615	SWIGEXPORT unsigned long SWIGSTDCALL CSharp_aiVector3DVector_size(void * jarg1) {
19264	19616	unsigned long jresult ;
19265	19617	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19266		std::vector< aiVector3D * >::size_type result;
	19618	std::vector< aiVector3t< float > * >::size_type result;
19267	19619
19268	19620	arg1 = (std::vector< aiVector3D * > *)jarg1;
19269	19621	result = ((std::vector< aiVector3D * > const *)arg1)->size();

19275	19627	SWIGEXPORT unsigned long SWIGSTDCALL CSharp_aiVector3DVector_capacity(void * jarg1) {
19276	19628	unsigned long jresult ;
19277	19629	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19278		std::vector< aiVector3D * >::size_type result;
	19630	std::vector< aiVector3t< float > * >::size_type result;
19279	19631
19280	19632	arg1 = (std::vector< aiVector3D * > *)jarg1;
19281	19633	result = ((std::vector< aiVector3D * > const *)arg1)->capacity();

19286	19638
19287	19639	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3DVector_reserve(void * jarg1, unsigned long jarg2) {
19288	19640	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19289		std::vector< aiVector3D * >::size_type arg2 ;
	19641	std::vector< aiVector3t< float > * >::size_type arg2 ;
19290	19642
19291	19643	arg1 = (std::vector< aiVector3D * > *)jarg1;
19292		arg2 = (std::vector< aiVector3D * >::size_type)jarg2;
	19644	arg2 = (std::vector< aiVector3t< float > * >::size_type)jarg2;
19293	19645	(arg1)->reserve(arg2);
19294	19646	}
19295	19647

19343	19695	void * jresult ;
19344	19696	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19345	19697	int arg2 ;
19346		aiVector3D *result = 0 ;
	19698	aiVector3t< float > *result = 0 ;
19347	19699
19348	19700	arg1 = (std::vector< aiVector3D * > *)jarg1;
19349	19701	arg2 = (int)jarg2;
19350	19702	try {
19351		result = (aiVector3D *)std_vector_Sl_aiVector3D_Sm__Sg__getitemcopy(arg1,arg2);
	19703	result = (aiVector3t< float > *)std_vector_Sl_aiVector3D_Sm__Sg__getitemcopy(arg1,arg2);
19352	19704	}
19353	19705	catch(std::out_of_range &_e) {
19354	19706	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19364	19716	void * jresult ;
19365	19717	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19366	19718	int arg2 ;
19367		aiVector3D **result = 0 ;
	19719	aiVector3t< float > **result = 0 ;
19368	19720
19369	19721	arg1 = (std::vector< aiVector3D * > *)jarg1;
19370	19722	arg2 = (int)jarg2;
19371	19723	try {
19372		result = (aiVector3D **) &std_vector_Sl_aiVector3D_Sm__Sg__getitem(arg1,arg2);
	19724	result = (aiVector3t< float > **) &std_vector_Sl_aiVector3D_Sm__Sg__getitem(arg1,arg2);
19373	19725	}
19374	19726	catch(std::out_of_range &_e) {
19375	19727	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19384	19736	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3DVector_setitem(void * jarg1, int jarg2, void * jarg3) {
19385	19737	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19386	19738	int arg2 ;
19387		aiVector3D **arg3 = 0 ;
19388		aiVector3D *temp3 = 0 ;
	19739	aiVector3t< float > **arg3 = 0 ;
	19740	aiVector3t< float > *temp3 = 0 ;
19389	19741
19390	19742	arg1 = (std::vector< aiVector3D * > *)jarg1;
19391	19743	arg2 = (int)jarg2;
19392		temp3 = (aiVector3D *)jarg3;
19393		arg3 = (aiVector3D **)&temp3;
19394		try {
19395		std_vector_Sl_aiVector3D_Sm__Sg__setitem(arg1,arg2,(aiVector3D const &)arg3);
	19744	temp3 = (aiVector3t< float > *)jarg3;
	19745	arg3 = (aiVector3t< float > **)&temp3;
	19746	try {
	19747	std_vector_Sl_aiVector3D_Sm__Sg__setitem(arg1,arg2,(aiVector3t< float > const &)arg3);
19396	19748	}
19397	19749	catch(std::out_of_range &_e) {
19398	19750	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19404	19756
19405	19757	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3DVector_AddRange(void * jarg1, void * jarg2) {
19406	19758	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19407		std::vector< aiVector3D * > *arg2 = 0 ;
	19759	std::vector< aiVector3t< float > * > *arg2 = 0 ;
19408	19760
19409	19761	arg1 = (std::vector< aiVector3D * > *)jarg1;
19410		arg2 = (std::vector< aiVector3D * > *)jarg2;
	19762	arg2 = (std::vector< aiVector3t< float > * > *)jarg2;
19411	19763	if (!arg2) {
19412		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiVector3D * > const & type is null", 0);
	19764	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiVector3t< float > * > const & type is null", 0);
19413	19765	return ;
19414	19766	}
19415		std_vector_Sl_aiVector3D_Sm__Sg__AddRange(arg1,(std::vector< aiVector3D * > const &)*arg2);
	19767	std_vector_Sl_aiVector3D_Sm__Sg__AddRange(arg1,(std::vector< aiVector3t< float > * > const &)*arg2);
19416	19768	}
19417	19769
19418	19770

19421	19773	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19422	19774	int arg2 ;
19423	19775	int arg3 ;
19424		std::vector< aiVector3D * > *result = 0 ;
	19776	std::vector< aiVector3t< float > * > *result = 0 ;
19425	19777
19426	19778	arg1 = (std::vector< aiVector3D * > *)jarg1;
19427	19779	arg2 = (int)jarg2;
19428	19780	arg3 = (int)jarg3;
19429	19781	try {
19430		result = (std::vector< aiVector3D * > *)std_vector_Sl_aiVector3D_Sm__Sg__GetRange(arg1,arg2,arg3);
	19782	result = (std::vector< aiVector3t< float > * > *)std_vector_Sl_aiVector3D_Sm__Sg__GetRange(arg1,arg2,arg3);
19431	19783	}
19432	19784	catch(std::out_of_range &_e) {
19433	19785	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19446	19798	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3DVector_Insert(void * jarg1, int jarg2, void * jarg3) {
19447	19799	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19448	19800	int arg2 ;
19449		aiVector3D **arg3 = 0 ;
19450		aiVector3D *temp3 = 0 ;
	19801	aiVector3t< float > **arg3 = 0 ;
	19802	aiVector3t< float > *temp3 = 0 ;
19451	19803
19452	19804	arg1 = (std::vector< aiVector3D * > *)jarg1;
19453	19805	arg2 = (int)jarg2;
19454		temp3 = (aiVector3D *)jarg3;
19455		arg3 = (aiVector3D **)&temp3;
19456		try {
19457		std_vector_Sl_aiVector3D_Sm__Sg__Insert(arg1,arg2,(aiVector3D const &)arg3);
	19806	temp3 = (aiVector3t< float > *)jarg3;
	19807	arg3 = (aiVector3t< float > **)&temp3;
	19808	try {
	19809	std_vector_Sl_aiVector3D_Sm__Sg__Insert(arg1,arg2,(aiVector3t< float > const &)arg3);
19458	19810	}
19459	19811	catch(std::out_of_range &_e) {
19460	19812	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19467	19819	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3DVector_InsertRange(void * jarg1, int jarg2, void * jarg3) {
19468	19820	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19469	19821	int arg2 ;
19470		std::vector< aiVector3D * > *arg3 = 0 ;
	19822	std::vector< aiVector3t< float > * > *arg3 = 0 ;
19471	19823
19472	19824	arg1 = (std::vector< aiVector3D * > *)jarg1;
19473	19825	arg2 = (int)jarg2;
19474		arg3 = (std::vector< aiVector3D * > *)jarg3;
	19826	arg3 = (std::vector< aiVector3t< float > * > *)jarg3;
19475	19827	if (!arg3) {
19476		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiVector3D * > const & type is null", 0);
	19828	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiVector3t< float > * > const & type is null", 0);
19477	19829	return ;
19478	19830	}
19479	19831	try {
19480		std_vector_Sl_aiVector3D_Sm__Sg__InsertRange(arg1,arg2,(std::vector< aiVector3D * > const &)*arg3);
	19832	std_vector_Sl_aiVector3D_Sm__Sg__InsertRange(arg1,arg2,(std::vector< aiVector3t< float > * > const &)*arg3);
19481	19833	}
19482	19834	catch(std::out_of_range &_e) {
19483	19835	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19529	19881
19530	19882	SWIGEXPORT void * SWIGSTDCALL CSharp_aiVector3DVector_Repeat(void * jarg1, int jarg2) {
19531	19883	void * jresult ;
19532		aiVector3D **arg1 = 0 ;
19533		int arg2 ;
19534		aiVector3D *temp1 = 0 ;
19535		std::vector< aiVector3D * > *result = 0 ;
19536
19537		temp1 = (aiVector3D *)jarg1;
19538		arg1 = (aiVector3D **)&temp1;
19539		arg2 = (int)jarg2;
19540		try {
19541		result = (std::vector< aiVector3D * > )std_vector_Sl_aiVector3D_Sm__Sg__Repeat((aiVector3D const &)*arg1,arg2);
	19884	aiVector3t< float > **arg1 = 0 ;
	19885	int arg2 ;
	19886	aiVector3t< float > *temp1 = 0 ;
	19887	std::vector< aiVector3t< float > * > *result = 0 ;
	19888
	19889	temp1 = (aiVector3t< float > *)jarg1;
	19890	arg1 = (aiVector3t< float > **)&temp1;
	19891	arg2 = (int)jarg2;
	19892	try {
	19893	result = (std::vector< aiVector3t< float > * > )std_vector_Sl_aiVector3D_Sm__Sg__Repeat((aiVector3t< float > const &)*arg1,arg2);
19542	19894	}
19543	19895	catch(std::out_of_range &_e) {
19544	19896	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19584	19936	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3DVector_SetRange(void * jarg1, int jarg2, void * jarg3) {
19585	19937	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19586	19938	int arg2 ;
19587		std::vector< aiVector3D * > *arg3 = 0 ;
	19939	std::vector< aiVector3t< float > * > *arg3 = 0 ;
19588	19940
19589	19941	arg1 = (std::vector< aiVector3D * > *)jarg1;
19590	19942	arg2 = (int)jarg2;
19591		arg3 = (std::vector< aiVector3D * > *)jarg3;
	19943	arg3 = (std::vector< aiVector3t< float > * > *)jarg3;
19592	19944	if (!arg3) {
19593		SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiVector3D * > const & type is null", 0);
	19945	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< aiVector3t< float > * > const & type is null", 0);
19594	19946	return ;
19595	19947	}
19596	19948	try {
19597		std_vector_Sl_aiVector3D_Sm__Sg__SetRange(arg1,arg2,(std::vector< aiVector3D * > const &)*arg3);
	19949	std_vector_Sl_aiVector3D_Sm__Sg__SetRange(arg1,arg2,(std::vector< aiVector3t< float > * > const &)*arg3);
19598	19950	}
19599	19951	catch(std::out_of_range &_e) {
19600	19952	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19607	19959	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVector3DVector_Contains(void * jarg1, void * jarg2) {
19608	19960	unsigned int jresult ;
19609	19961	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19610		aiVector3D **arg2 = 0 ;
19611		aiVector3D *temp2 = 0 ;
	19962	aiVector3t< float > **arg2 = 0 ;
	19963	aiVector3t< float > *temp2 = 0 ;
19612	19964	bool result;
19613	19965
19614	19966	arg1 = (std::vector< aiVector3D * > *)jarg1;
19615		temp2 = (aiVector3D *)jarg2;
19616		arg2 = (aiVector3D **)&temp2;
19617		result = (bool)std_vector_Sl_aiVector3D_Sm__Sg__Contains(arg1,(aiVector3D const &)arg2);
	19967	temp2 = (aiVector3t< float > *)jarg2;
	19968	arg2 = (aiVector3t< float > **)&temp2;
	19969	result = (bool)std_vector_Sl_aiVector3D_Sm__Sg__Contains(arg1,(aiVector3t< float > const &)arg2);
19618	19970	jresult = result;
19619	19971	return jresult;
19620	19972	}

19623	19975	SWIGEXPORT int SWIGSTDCALL CSharp_aiVector3DVector_IndexOf(void * jarg1, void * jarg2) {
19624	19976	int jresult ;
19625	19977	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19626		aiVector3D **arg2 = 0 ;
19627		aiVector3D *temp2 = 0 ;
	19978	aiVector3t< float > **arg2 = 0 ;
	19979	aiVector3t< float > *temp2 = 0 ;
19628	19980	int result;
19629	19981
19630	19982	arg1 = (std::vector< aiVector3D * > *)jarg1;
19631		temp2 = (aiVector3D *)jarg2;
19632		arg2 = (aiVector3D **)&temp2;
19633		result = (int)std_vector_Sl_aiVector3D_Sm__Sg__IndexOf(arg1,(aiVector3D const &)arg2);
	19983	temp2 = (aiVector3t< float > *)jarg2;
	19984	arg2 = (aiVector3t< float > **)&temp2;
	19985	result = (int)std_vector_Sl_aiVector3D_Sm__Sg__IndexOf(arg1,(aiVector3t< float > const &)arg2);
19634	19986	jresult = result;
19635	19987	return jresult;
19636	19988	}

19639	19991	SWIGEXPORT int SWIGSTDCALL CSharp_aiVector3DVector_LastIndexOf(void * jarg1, void * jarg2) {
19640	19992	int jresult ;
19641	19993	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19642		aiVector3D **arg2 = 0 ;
19643		aiVector3D *temp2 = 0 ;
	19994	aiVector3t< float > **arg2 = 0 ;
	19995	aiVector3t< float > *temp2 = 0 ;
19644	19996	int result;
19645	19997
19646	19998	arg1 = (std::vector< aiVector3D * > *)jarg1;
19647		temp2 = (aiVector3D *)jarg2;
19648		arg2 = (aiVector3D **)&temp2;
19649		result = (int)std_vector_Sl_aiVector3D_Sm__Sg__LastIndexOf(arg1,(aiVector3D const &)arg2);
	19999	temp2 = (aiVector3t< float > *)jarg2;
	20000	arg2 = (aiVector3t< float > **)&temp2;
	20001	result = (int)std_vector_Sl_aiVector3D_Sm__Sg__LastIndexOf(arg1,(aiVector3t< float > const &)arg2);
19650	20002	jresult = result;
19651	20003	return jresult;
19652	20004	}

19655	20007	SWIGEXPORT unsigned int SWIGSTDCALL CSharp_aiVector3DVector_Remove(void * jarg1, void * jarg2) {
19656	20008	unsigned int jresult ;
19657	20009	std::vector< aiVector3D * > arg1 = (std::vector< aiVector3D > *) 0 ;
19658		aiVector3D **arg2 = 0 ;
19659		aiVector3D *temp2 = 0 ;
	20010	aiVector3t< float > **arg2 = 0 ;
	20011	aiVector3t< float > *temp2 = 0 ;
19660	20012	bool result;
19661	20013
19662	20014	arg1 = (std::vector< aiVector3D * > *)jarg1;
19663		temp2 = (aiVector3D *)jarg2;
19664		arg2 = (aiVector3D **)&temp2;
19665		result = (bool)std_vector_Sl_aiVector3D_Sm__Sg__Remove(arg1,(aiVector3D const &)arg2);
	20015	temp2 = (aiVector3t< float > *)jarg2;
	20016	arg2 = (aiVector3t< float > **)&temp2;
	20017	result = (bool)std_vector_Sl_aiVector3D_Sm__Sg__Remove(arg1,(aiVector3t< float > const &)arg2);
19666	20018	jresult = result;
19667	20019	return jresult;
19668	20020	}

19701	20053	SWIGEXPORT unsigned long SWIGSTDCALL CSharp_aiVector3DVectorVector_size(void * jarg1) {
19702	20054	unsigned long jresult ;
19703	20055	std::vector< std::vector< aiVector3D * > > arg1 = (std::vector< std::vector< aiVector3D > > *) 0 ;
19704		std::vector< std::vector< aiVector3D * > >::size_type result;
	20056	std::vector< std::vector< aiVector3t< float > * > >::size_type result;
19705	20057
19706	20058	arg1 = (std::vector< std::vector< aiVector3D * > > *)jarg1;
19707	20059	result = ((std::vector< std::vector< aiVector3D * > > const *)arg1)->size();

19713	20065	SWIGEXPORT unsigned long SWIGSTDCALL CSharp_aiVector3DVectorVector_capacity(void * jarg1) {
19714	20066	unsigned long jresult ;
19715	20067	std::vector< std::vector< aiVector3D * > > arg1 = (std::vector< std::vector< aiVector3D > > *) 0 ;
19716		std::vector< std::vector< aiVector3D * > >::size_type result;
	20068	std::vector< std::vector< aiVector3t< float > * > >::size_type result;
19717	20069
19718	20070	arg1 = (std::vector< std::vector< aiVector3D * > > *)jarg1;
19719	20071	result = ((std::vector< std::vector< aiVector3D * > > const *)arg1)->capacity();

19724	20076
19725	20077	SWIGEXPORT void SWIGSTDCALL CSharp_aiVector3DVectorVector_reserve(void * jarg1, unsigned long jarg2) {
19726	20078	std::vector< std::vector< aiVector3D * > > arg1 = (std::vector< std::vector< aiVector3D > > *) 0 ;
19727		std::vector< std::vector< aiVector3D * > >::size_type arg2 ;
	20079	std::vector< std::vector< aiVector3t< float > * > >::size_type arg2 ;
19728	20080
19729	20081	arg1 = (std::vector< std::vector< aiVector3D * > > *)jarg1;
19730		arg2 = (std::vector< std::vector< aiVector3D * > >::size_type)jarg2;
	20082	arg2 = (std::vector< std::vector< aiVector3t< float > * > >::size_type)jarg2;
19731	20083	(arg1)->reserve(arg2);
19732	20084	}
19733	20085

19832	20184	return ;
19833	20185	}
19834	20186	try {
19835		std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__setitem(arg1,arg2,(std::vector< aiVector3D * > const &)*arg3);
	20187	std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__setitem(arg1,arg2,(std::vector< aiVector3t< float > * > const &)*arg3);
19836	20188	}
19837	20189	catch(std::out_of_range &_e) {
19838	20190	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19852	20204	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentNullException, "std::vector< std::vector< aiVector3D * > > const & type is null", 0);
19853	20205	return ;
19854	20206	}
19855		std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__AddRange(arg1,(std::vector< std::vector< aiVector3D * > > const &)*arg2);
	20207	std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__AddRange(arg1,(std::vector< std::vector< aiVector3t< float > * > > const &)*arg2);
19856	20208	}
19857	20209
19858	20210

19896	20248	return ;
19897	20249	}
19898	20250	try {
19899		std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__Insert(arg1,arg2,(std::vector< aiVector3D * > const &)*arg3);
	20251	std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__Insert(arg1,arg2,(std::vector< aiVector3t< float > * > const &)*arg3);
19900	20252	}
19901	20253	catch(std::out_of_range &_e) {
19902	20254	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19919	20271	return ;
19920	20272	}
19921	20273	try {
19922		std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__InsertRange(arg1,arg2,(std::vector< std::vector< aiVector3D * > > const &)*arg3);
	20274	std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__InsertRange(arg1,arg2,(std::vector< std::vector< aiVector3t< float > * > > const &)*arg3);
19923	20275	}
19924	20276	catch(std::out_of_range &_e) {
19925	20277	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

19982	20334	}
19983	20335	arg2 = (int)jarg2;
19984	20336	try {
19985		result = (std::vector< std::vector< aiVector3D * > > )std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__Repeat((std::vector< aiVector3D > const &)*arg1,arg2);
	20337	result = (std::vector< std::vector< aiVector3D * > > )std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__Repeat((std::vector< aiVector3t< float > > const &)*arg1,arg2);
19986	20338	}
19987	20339	catch(std::out_of_range &_e) {
19988	20340	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

20038	20390	return ;
20039	20391	}
20040	20392	try {
20041		std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__SetRange(arg1,arg2,(std::vector< std::vector< aiVector3D * > > const &)*arg3);
	20393	std_vector_Sl_std_vector_Sl_aiVector3D_Sm__Sg__Sg__SetRange(arg1,arg2,(std::vector< std::vector< aiVector3t< float > * > > const &)*arg3);
20042	20394	}
20043	20395	catch(std::out_of_range &_e) {
20044	20396	SWIG_CSharpSetPendingExceptionArgument(SWIG_CSharpArgumentOutOfRangeException, 0, (&_e)->what());

+16

-1

port/Assimp.NET/Assimp.NET_CS/Assimp.NET_CS.csproj less more

2	2	<PropertyGroup>
3	3	<Configuration Condition=" '$(Configuration)' == '' ">Debug</Configuration>
4	4	<Platform Condition=" '$(Platform)' == '' ">AnyCPU</Platform>
5		<ProductVersion>9.0.30729</ProductVersion>
	5	<ProductVersion>9.0.21022</ProductVersion>
6	6	<SchemaVersion>2.0</SchemaVersion>
7	7	<ProjectGuid>{A0CE9ED2-A27E-40AE-95F5-FEF94BB7E131}</ProjectGuid>
8	8	<OutputType>Library</OutputType>

141	141	<Compile Include="FloatVector.cs" />
142	142	<Compile Include="Importer.cs" />
143	143	<Compile Include="ProgressHandler.cs" />
	144	<Compile Include="SWIGTYPE_p_aiImporterDesc.cs">
	145	<SubType>Code</SubType>
	146	</Compile>
	147	<Compile Include="SWIGTYPE_p_Assimp__BaseImporter.cs">
	148	<SubType>Code</SubType>
	149	</Compile>
	150	<Compile Include="SWIGTYPE_p_Assimp__ImporterPimpl.cs">
	151	<SubType>Code</SubType>
	152	</Compile>
	153	<Compile Include="SWIGTYPE_p_float.cs">
	154	<SubType>Code</SubType>
	155	</Compile>
144	156	<Compile Include="SWIGTYPE_p_std__string.cs">
	157	<SubType>Code</SubType>
	158	</Compile>
	159	<Compile Include="SWIGTYPE_p_void.cs">
145	160	<SubType>Code</SubType>
146	161	</Compile>
147	162	<Compile Include="UintVector.cs" />

+11

-56

port/Assimp.NET/Assimp.NET_CS/Assimp.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

42	42	return ret;
43	43	}
44	44
45		public static aiVector2D __add__(aiVector2D v1, aiVector2D v2) {
46		aiVector2D ret = new aiVector2D(AssimpPINVOKE.__add__(aiVector2D.getCPtr(v1), aiVector2D.getCPtr(v2)), true);
47		if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
48		return ret;
49		}
50
51		public static aiVector2D __sub__(aiVector2D v1, aiVector2D v2) {
52		aiVector2D ret = new aiVector2D(AssimpPINVOKE.__sub____SWIG_0(aiVector2D.getCPtr(v1), aiVector2D.getCPtr(v2)), true);
53		if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
54		return ret;
55		}
56
57		public static float __mul__(aiVector2D v1, aiVector2D v2) {
58		float ret = AssimpPINVOKE.__mul____SWIG_0(aiVector2D.getCPtr(v1), aiVector2D.getCPtr(v2));
59		if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
60		return ret;
61		}
62
63		public static aiVector2D __mul__(float f, aiVector2D v) {
64		aiVector2D ret = new aiVector2D(AssimpPINVOKE.__mul____SWIG_1(f, aiVector2D.getCPtr(v)), true);
65		if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
66		return ret;
67		}
68
69		public static aiVector2D __mul__(aiVector2D v, float f) {
70		aiVector2D ret = new aiVector2D(AssimpPINVOKE.__mul____SWIG_2(aiVector2D.getCPtr(v), f), true);
71		if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
72		return ret;
73		}
74
75		public static aiVector2D __div__(aiVector2D v, float f) {
76		aiVector2D ret = new aiVector2D(AssimpPINVOKE.__div____SWIG_0(aiVector2D.getCPtr(v), f), true);
77		if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
78		return ret;
79		}
80
81		public static aiVector2D __div__(aiVector2D v, aiVector2D v2) {
82		aiVector2D ret = new aiVector2D(AssimpPINVOKE.__div____SWIG_1(aiVector2D.getCPtr(v), aiVector2D.getCPtr(v2)), true);
83		if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
84		return ret;
85		}
86
87		public static aiVector2D __sub__(aiVector2D v) {
88		aiVector2D ret = new aiVector2D(AssimpPINVOKE.__sub____SWIG_1(aiVector2D.getCPtr(v)), true);
89		if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
90		return ret;
91		}
92
93		public static aiScene aiImportFileFromMemory(string arg0, uint arg1, uint arg2, string arg3) {
94		IntPtr cPtr = AssimpPINVOKE.aiImportFileFromMemory(arg0, arg1, arg2, arg3);
95		aiScene ret = (cPtr == IntPtr.Zero) ? null : new aiScene(cPtr, false);
96		return ret;
97		}
98
99	45	public static readonly double AI_MATH_PI = AssimpPINVOKE.AI_MATH_PI_get();
100	46	public static readonly double AI_MATH_TWO_PI = AssimpPINVOKE.AI_MATH_TWO_PI_get();
101	47	public static readonly double AI_MATH_HALF_PI = AssimpPINVOKE.AI_MATH_HALF_PI_get();

103	49	public static readonly double AI_MATH_TWO_PI_F = AssimpPINVOKE.AI_MATH_TWO_PI_F_get();
104	50	public static readonly double AI_MATH_HALF_PI_F = AssimpPINVOKE.AI_MATH_HALF_PI_F_get();
105	51	public static readonly string AI_CONFIG_GLOB_MEASURE_TIME = AssimpPINVOKE.AI_CONFIG_GLOB_MEASURE_TIME_get();
	52	public static readonly string AI_CONFIG_PP_SBBC_MAX_BONES = AssimpPINVOKE.AI_CONFIG_PP_SBBC_MAX_BONES_get();
	53	public static readonly int AI_SBBC_DEFAULT_MAX_BONES = AssimpPINVOKE.AI_SBBC_DEFAULT_MAX_BONES_get();
106	54	public static readonly string AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE = AssimpPINVOKE.AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE_get();
	55	public static readonly string AI_CONFIG_PP_CT_TEXTURE_CHANNEL_INDEX = AssimpPINVOKE.AI_CONFIG_PP_CT_TEXTURE_CHANNEL_INDEX_get();
107	56	public static readonly string AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE = AssimpPINVOKE.AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE_get();
108	57	public static readonly string AI_CONFIG_IMPORT_MDL_COLORMAP = AssimpPINVOKE.AI_CONFIG_IMPORT_MDL_COLORMAP_get();
109	58	public static readonly string AI_CONFIG_PP_RRM_EXCLUDE_LIST = AssimpPINVOKE.AI_CONFIG_PP_RRM_EXCLUDE_LIST_get();

117	66	public static readonly int AI_SLM_DEFAULT_MAX_VERTICES = AssimpPINVOKE.AI_SLM_DEFAULT_MAX_VERTICES_get();
118	67	public static readonly string AI_CONFIG_PP_LBW_MAX_WEIGHTS = AssimpPINVOKE.AI_CONFIG_PP_LBW_MAX_WEIGHTS_get();
119	68	public static readonly int AI_LMW_MAX_WEIGHTS = AssimpPINVOKE.AI_LMW_MAX_WEIGHTS_get();
	69	public static readonly string AI_CONFIG_PP_DB_THRESHOLD = AssimpPINVOKE.AI_CONFIG_PP_DB_THRESHOLD_get();
	70	public static readonly double AI_DEBONE_THRESHOLD = AssimpPINVOKE.AI_DEBONE_THRESHOLD_get();
	71	public static readonly string AI_CONFIG_PP_DB_ALL_OR_NONE = AssimpPINVOKE.AI_CONFIG_PP_DB_ALL_OR_NONE_get();
120	72	public static readonly int PP_ICL_PTCACHE_SIZE = AssimpPINVOKE.PP_ICL_PTCACHE_SIZE_get();
121	73	public static readonly string AI_CONFIG_PP_ICL_PTCACHE_SIZE = AssimpPINVOKE.AI_CONFIG_PP_ICL_PTCACHE_SIZE_get();
122	74	public static readonly string AI_CONFIG_PP_RVC_FLAGS = AssimpPINVOKE.AI_CONFIG_PP_RVC_FLAGS_get();

149	101	public static readonly string AI_CONFIG_IMPORT_LWS_ANIM_END = AssimpPINVOKE.AI_CONFIG_IMPORT_LWS_ANIM_END_get();
150	102	public static readonly string AI_CONFIG_IMPORT_IRR_ANIM_FPS = AssimpPINVOKE.AI_CONFIG_IMPORT_IRR_ANIM_FPS_get();
151	103	public static readonly string AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE = AssimpPINVOKE.AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE_get();
	104	public static readonly string AI_CONFIG_IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME = AssimpPINVOKE.AI_CONFIG_IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME_get();
	105	public static readonly string AI_CONFIG_IMPORT_IFC_SKIP_SPACE_REPRESENTATIONS = AssimpPINVOKE.AI_CONFIG_IMPORT_IFC_SKIP_SPACE_REPRESENTATIONS_get();
	106	public static readonly string AI_CONFIG_IMPORT_IFC_SKIP_CURVE_REPRESENTATIONS = AssimpPINVOKE.AI_CONFIG_IMPORT_IFC_SKIP_CURVE_REPRESENTATIONS_get();
	107	public static readonly string AI_CONFIG_IMPORT_IFC_CUSTOM_TRIANGULATION = AssimpPINVOKE.AI_CONFIG_IMPORT_IFC_CUSTOM_TRIANGULATION_get();
152	108	public static readonly int ASSIMP_CFLAGS_SHARED = AssimpPINVOKE.ASSIMP_CFLAGS_SHARED_get();
153	109	public static readonly int ASSIMP_CFLAGS_STLPORT = AssimpPINVOKE.ASSIMP_CFLAGS_STLPORT_get();
154	110	public static readonly int ASSIMP_CFLAGS_DEBUG = AssimpPINVOKE.ASSIMP_CFLAGS_DEBUG_get();

161	117	public static readonly int AI_MAX_NUMBER_OF_COLOR_SETS = AssimpPINVOKE.AI_MAX_NUMBER_OF_COLOR_SETS_get();
162	118	public static readonly int AI_MAX_NUMBER_OF_TEXTURECOORDS = AssimpPINVOKE.AI_MAX_NUMBER_OF_TEXTURECOORDS_get();
163	119	public static readonly string AI_DEFAULT_MATERIAL_NAME = AssimpPINVOKE.AI_DEFAULT_MATERIAL_NAME_get();
164		public static readonly string AI_DEFAULT_TEXTURED_MATERIAL_NAME = AssimpPINVOKE.AI_DEFAULT_TEXTURED_MATERIAL_NAME_get();
165	120	public static readonly string _AI_MATKEY_TEXTURE_BASE = AssimpPINVOKE._AI_MATKEY_TEXTURE_BASE_get();
166	121	public static readonly string _AI_MATKEY_UVWSRC_BASE = AssimpPINVOKE._AI_MATKEY_UVWSRC_BASE_get();
167	122	public static readonly string _AI_MATKEY_TEXOP_BASE = AssimpPINVOKE._AI_MATKEY_TEXOP_BASE_get();

+1392

-1308

port/Assimp.NET/Assimp.NET_CS/AssimpPINVOKE.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

208	208	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_GLOB_MEASURE_TIME_get")]
209	209	public static extern string AI_CONFIG_GLOB_MEASURE_TIME_get();
210	210
	211	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_PP_SBBC_MAX_BONES_get")]
	212	public static extern string AI_CONFIG_PP_SBBC_MAX_BONES_get();
	213
	214	[DllImport("Assimp", EntryPoint="CSharp_AI_SBBC_DEFAULT_MAX_BONES_get")]
	215	public static extern int AI_SBBC_DEFAULT_MAX_BONES_get();
	216
211	217	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE_get")]
212	218	public static extern string AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE_get();
213	219
	220	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_PP_CT_TEXTURE_CHANNEL_INDEX_get")]
	221	public static extern string AI_CONFIG_PP_CT_TEXTURE_CHANNEL_INDEX_get();
	222
214	223	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE_get")]
215	224	public static extern string AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE_get();
216	225

250	259	[DllImport("Assimp", EntryPoint="CSharp_AI_LMW_MAX_WEIGHTS_get")]
251	260	public static extern int AI_LMW_MAX_WEIGHTS_get();
252	261
	262	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_PP_DB_THRESHOLD_get")]
	263	public static extern string AI_CONFIG_PP_DB_THRESHOLD_get();
	264
	265	[DllImport("Assimp", EntryPoint="CSharp_AI_DEBONE_THRESHOLD_get")]
	266	public static extern double AI_DEBONE_THRESHOLD_get();
	267
	268	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_PP_DB_ALL_OR_NONE_get")]
	269	public static extern string AI_CONFIG_PP_DB_ALL_OR_NONE_get();
	270
253	271	[DllImport("Assimp", EntryPoint="CSharp_PP_ICL_PTCACHE_SIZE_get")]
254	272	public static extern int PP_ICL_PTCACHE_SIZE_get();
255	273

346	364	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE_get")]
347	365	public static extern string AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE_get();
348	366
	367	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME_get")]
	368	public static extern string AI_CONFIG_IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME_get();
	369
	370	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_IMPORT_IFC_SKIP_SPACE_REPRESENTATIONS_get")]
	371	public static extern string AI_CONFIG_IMPORT_IFC_SKIP_SPACE_REPRESENTATIONS_get();
	372
	373	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_IMPORT_IFC_SKIP_CURVE_REPRESENTATIONS_get")]
	374	public static extern string AI_CONFIG_IMPORT_IFC_SKIP_CURVE_REPRESENTATIONS_get();
	375
	376	[DllImport("Assimp", EntryPoint="CSharp_AI_CONFIG_IMPORT_IFC_CUSTOM_TRIANGULATION_get")]
	377	public static extern string AI_CONFIG_IMPORT_IFC_CUSTOM_TRIANGULATION_get();
	378
349	379	[DllImport("Assimp", EntryPoint="CSharp_MAXLEN_get")]
350	380	public static extern uint MAXLEN_get();
351	381

484	514	[DllImport("Assimp", EntryPoint="CSharp_aiString___nequal__")]
485	515	public static extern bool aiString___nequal__(HandleRef jarg1, HandleRef jarg2);
486	516
	517	[DllImport("Assimp", EntryPoint="CSharp_aiString_C_Str")]
	518	public static extern string aiString_C_Str(HandleRef jarg1);
	519
487	520	[DllImport("Assimp", EntryPoint="CSharp_aiString_Length_set")]
488	521	public static extern void aiString_Length_set(HandleRef jarg1, uint jarg2);
489	522

583	616	[DllImport("Assimp", EntryPoint="CSharp_aiGetCompileFlags")]
584	617	public static extern uint aiGetCompileFlags();
585	618
	619	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mName_set")]
	620	public static extern void aiCamera_mName_set(HandleRef jarg1, HandleRef jarg2);
	621
	622	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mName_get")]
	623	public static extern IntPtr aiCamera_mName_get(HandleRef jarg1);
	624
	625	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mPosition_set")]
	626	public static extern void aiCamera_mPosition_set(HandleRef jarg1, HandleRef jarg2);
	627
	628	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mPosition_get")]
	629	public static extern IntPtr aiCamera_mPosition_get(HandleRef jarg1);
	630
	631	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mUp_set")]
	632	public static extern void aiCamera_mUp_set(HandleRef jarg1, HandleRef jarg2);
	633
	634	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mUp_get")]
	635	public static extern IntPtr aiCamera_mUp_get(HandleRef jarg1);
	636
	637	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mLookAt_set")]
	638	public static extern void aiCamera_mLookAt_set(HandleRef jarg1, HandleRef jarg2);
	639
	640	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mLookAt_get")]
	641	public static extern IntPtr aiCamera_mLookAt_get(HandleRef jarg1);
	642
	643	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mHorizontalFOV_set")]
	644	public static extern void aiCamera_mHorizontalFOV_set(HandleRef jarg1, float jarg2);
	645
	646	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mHorizontalFOV_get")]
	647	public static extern float aiCamera_mHorizontalFOV_get(HandleRef jarg1);
	648
	649	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mClipPlaneNear_set")]
	650	public static extern void aiCamera_mClipPlaneNear_set(HandleRef jarg1, float jarg2);
	651
	652	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mClipPlaneNear_get")]
	653	public static extern float aiCamera_mClipPlaneNear_get(HandleRef jarg1);
	654
	655	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mClipPlaneFar_set")]
	656	public static extern void aiCamera_mClipPlaneFar_set(HandleRef jarg1, float jarg2);
	657
	658	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mClipPlaneFar_get")]
	659	public static extern float aiCamera_mClipPlaneFar_get(HandleRef jarg1);
	660
	661	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mAspect_set")]
	662	public static extern void aiCamera_mAspect_set(HandleRef jarg1, float jarg2);
	663
	664	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mAspect_get")]
	665	public static extern float aiCamera_mAspect_get(HandleRef jarg1);
	666
	667	[DllImport("Assimp", EntryPoint="CSharp_new_aiCamera")]
	668	public static extern IntPtr new_aiCamera();
	669
	670	[DllImport("Assimp", EntryPoint="CSharp_aiCamera_GetCameraMatrix")]
	671	public static extern void aiCamera_GetCameraMatrix(HandleRef jarg1, HandleRef jarg2);
	672
	673	[DllImport("Assimp", EntryPoint="CSharp_delete_aiCamera")]
	674	public static extern void delete_aiCamera(HandleRef jarg1);
	675
	676	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mName_set")]
	677	public static extern void aiLight_mName_set(HandleRef jarg1, HandleRef jarg2);
	678
	679	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mName_get")]
	680	public static extern IntPtr aiLight_mName_get(HandleRef jarg1);
	681
	682	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mType_set")]
	683	public static extern void aiLight_mType_set(HandleRef jarg1, int jarg2);
	684
	685	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mType_get")]
	686	public static extern int aiLight_mType_get(HandleRef jarg1);
	687
	688	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mPosition_set")]
	689	public static extern void aiLight_mPosition_set(HandleRef jarg1, HandleRef jarg2);
	690
	691	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mPosition_get")]
	692	public static extern IntPtr aiLight_mPosition_get(HandleRef jarg1);
	693
	694	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mDirection_set")]
	695	public static extern void aiLight_mDirection_set(HandleRef jarg1, HandleRef jarg2);
	696
	697	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mDirection_get")]
	698	public static extern IntPtr aiLight_mDirection_get(HandleRef jarg1);
	699
	700	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationConstant_set")]
	701	public static extern void aiLight_mAttenuationConstant_set(HandleRef jarg1, float jarg2);
	702
	703	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationConstant_get")]
	704	public static extern float aiLight_mAttenuationConstant_get(HandleRef jarg1);
	705
	706	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationLinear_set")]
	707	public static extern void aiLight_mAttenuationLinear_set(HandleRef jarg1, float jarg2);
	708
	709	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationLinear_get")]
	710	public static extern float aiLight_mAttenuationLinear_get(HandleRef jarg1);
	711
	712	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationQuadratic_set")]
	713	public static extern void aiLight_mAttenuationQuadratic_set(HandleRef jarg1, float jarg2);
	714
	715	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationQuadratic_get")]
	716	public static extern float aiLight_mAttenuationQuadratic_get(HandleRef jarg1);
	717
	718	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorDiffuse_set")]
	719	public static extern void aiLight_mColorDiffuse_set(HandleRef jarg1, HandleRef jarg2);
	720
	721	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorDiffuse_get")]
	722	public static extern IntPtr aiLight_mColorDiffuse_get(HandleRef jarg1);
	723
	724	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorSpecular_set")]
	725	public static extern void aiLight_mColorSpecular_set(HandleRef jarg1, HandleRef jarg2);
	726
	727	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorSpecular_get")]
	728	public static extern IntPtr aiLight_mColorSpecular_get(HandleRef jarg1);
	729
	730	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorAmbient_set")]
	731	public static extern void aiLight_mColorAmbient_set(HandleRef jarg1, HandleRef jarg2);
	732
	733	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorAmbient_get")]
	734	public static extern IntPtr aiLight_mColorAmbient_get(HandleRef jarg1);
	735
	736	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAngleInnerCone_set")]
	737	public static extern void aiLight_mAngleInnerCone_set(HandleRef jarg1, float jarg2);
	738
	739	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAngleInnerCone_get")]
	740	public static extern float aiLight_mAngleInnerCone_get(HandleRef jarg1);
	741
	742	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAngleOuterCone_set")]
	743	public static extern void aiLight_mAngleOuterCone_set(HandleRef jarg1, float jarg2);
	744
	745	[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAngleOuterCone_get")]
	746	public static extern float aiLight_mAngleOuterCone_get(HandleRef jarg1);
	747
	748	[DllImport("Assimp", EntryPoint="CSharp_new_aiLight")]
	749	public static extern IntPtr new_aiLight();
	750
	751	[DllImport("Assimp", EntryPoint="CSharp_delete_aiLight")]
	752	public static extern void delete_aiLight(HandleRef jarg1);
	753
	754	[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey_mTime_set")]
	755	public static extern void aiVectorKey_mTime_set(HandleRef jarg1, double jarg2);
	756
	757	[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey_mTime_get")]
	758	public static extern double aiVectorKey_mTime_get(HandleRef jarg1);
	759
	760	[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey_mValue_set")]
	761	public static extern void aiVectorKey_mValue_set(HandleRef jarg1, HandleRef jarg2);
	762
	763	[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey_mValue_get")]
	764	public static extern IntPtr aiVectorKey_mValue_get(HandleRef jarg1);
	765
	766	[DllImport("Assimp", EntryPoint="CSharp_new_aiVectorKey__SWIG_0")]
	767	public static extern IntPtr new_aiVectorKey__SWIG_0();
	768
	769	[DllImport("Assimp", EntryPoint="CSharp_new_aiVectorKey__SWIG_1")]
	770	public static extern IntPtr new_aiVectorKey__SWIG_1(double jarg1, HandleRef jarg2);
	771
	772	[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey___equal__")]
	773	public static extern bool aiVectorKey___equal__(HandleRef jarg1, HandleRef jarg2);
	774
	775	[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey___nequal__")]
	776	public static extern bool aiVectorKey___nequal__(HandleRef jarg1, HandleRef jarg2);
	777
	778	[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey___smaller__")]
	779	public static extern bool aiVectorKey___smaller__(HandleRef jarg1, HandleRef jarg2);
	780
	781	[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey___greater__")]
	782	public static extern bool aiVectorKey___greater__(HandleRef jarg1, HandleRef jarg2);
	783
	784	[DllImport("Assimp", EntryPoint="CSharp_delete_aiVectorKey")]
	785	public static extern void delete_aiVectorKey(HandleRef jarg1);
	786
	787	[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey_mTime_set")]
	788	public static extern void aiQuatKey_mTime_set(HandleRef jarg1, double jarg2);
	789
	790	[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey_mTime_get")]
	791	public static extern double aiQuatKey_mTime_get(HandleRef jarg1);
	792
	793	[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey_mValue_set")]
	794	public static extern void aiQuatKey_mValue_set(HandleRef jarg1, HandleRef jarg2);
	795
	796	[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey_mValue_get")]
	797	public static extern IntPtr aiQuatKey_mValue_get(HandleRef jarg1);
	798
	799	[DllImport("Assimp", EntryPoint="CSharp_new_aiQuatKey__SWIG_0")]
	800	public static extern IntPtr new_aiQuatKey__SWIG_0();
	801
	802	[DllImport("Assimp", EntryPoint="CSharp_new_aiQuatKey__SWIG_1")]
	803	public static extern IntPtr new_aiQuatKey__SWIG_1(double jarg1, HandleRef jarg2);
	804
	805	[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey___equal__")]
	806	public static extern bool aiQuatKey___equal__(HandleRef jarg1, HandleRef jarg2);
	807
	808	[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey___nequal__")]
	809	public static extern bool aiQuatKey___nequal__(HandleRef jarg1, HandleRef jarg2);
	810
	811	[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey___smaller__")]
	812	public static extern bool aiQuatKey___smaller__(HandleRef jarg1, HandleRef jarg2);
	813
	814	[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey___greater__")]
	815	public static extern bool aiQuatKey___greater__(HandleRef jarg1, HandleRef jarg2);
	816
	817	[DllImport("Assimp", EntryPoint="CSharp_delete_aiQuatKey")]
	818	public static extern void delete_aiQuatKey(HandleRef jarg1);
	819
	820	[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey_mTime_set")]
	821	public static extern void aiMeshKey_mTime_set(HandleRef jarg1, double jarg2);
	822
	823	[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey_mTime_get")]
	824	public static extern double aiMeshKey_mTime_get(HandleRef jarg1);
	825
	826	[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey_mValue_set")]
	827	public static extern void aiMeshKey_mValue_set(HandleRef jarg1, uint jarg2);
	828
	829	[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey_mValue_get")]
	830	public static extern uint aiMeshKey_mValue_get(HandleRef jarg1);
	831
	832	[DllImport("Assimp", EntryPoint="CSharp_new_aiMeshKey__SWIG_0")]
	833	public static extern IntPtr new_aiMeshKey__SWIG_0();
	834
	835	[DllImport("Assimp", EntryPoint="CSharp_new_aiMeshKey__SWIG_1")]
	836	public static extern IntPtr new_aiMeshKey__SWIG_1(double jarg1, uint jarg2);
	837
	838	[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey___equal__")]
	839	public static extern bool aiMeshKey___equal__(HandleRef jarg1, HandleRef jarg2);
	840
	841	[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey___nequal__")]
	842	public static extern bool aiMeshKey___nequal__(HandleRef jarg1, HandleRef jarg2);
	843
	844	[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey___smaller__")]
	845	public static extern bool aiMeshKey___smaller__(HandleRef jarg1, HandleRef jarg2);
	846
	847	[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey___greater__")]
	848	public static extern bool aiMeshKey___greater__(HandleRef jarg1, HandleRef jarg2);
	849
	850	[DllImport("Assimp", EntryPoint="CSharp_delete_aiMeshKey")]
	851	public static extern void delete_aiMeshKey(HandleRef jarg1);
	852
	853	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNodeName_set")]
	854	public static extern void aiNodeAnim_mNodeName_set(HandleRef jarg1, HandleRef jarg2);
	855
	856	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNodeName_get")]
	857	public static extern IntPtr aiNodeAnim_mNodeName_get(HandleRef jarg1);
	858
	859	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumPositionKeys_set")]
	860	public static extern void aiNodeAnim_mNumPositionKeys_set(HandleRef jarg1, uint jarg2);
	861
	862	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumPositionKeys_get")]
	863	public static extern uint aiNodeAnim_mNumPositionKeys_get(HandleRef jarg1);
	864
	865	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumRotationKeys_set")]
	866	public static extern void aiNodeAnim_mNumRotationKeys_set(HandleRef jarg1, uint jarg2);
	867
	868	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumRotationKeys_get")]
	869	public static extern uint aiNodeAnim_mNumRotationKeys_get(HandleRef jarg1);
	870
	871	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumScalingKeys_set")]
	872	public static extern void aiNodeAnim_mNumScalingKeys_set(HandleRef jarg1, uint jarg2);
	873
	874	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumScalingKeys_get")]
	875	public static extern uint aiNodeAnim_mNumScalingKeys_get(HandleRef jarg1);
	876
	877	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mPreState_set")]
	878	public static extern void aiNodeAnim_mPreState_set(HandleRef jarg1, int jarg2);
	879
	880	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mPreState_get")]
	881	public static extern int aiNodeAnim_mPreState_get(HandleRef jarg1);
	882
	883	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mPostState_set")]
	884	public static extern void aiNodeAnim_mPostState_set(HandleRef jarg1, int jarg2);
	885
	886	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mPostState_get")]
	887	public static extern int aiNodeAnim_mPostState_get(HandleRef jarg1);
	888
	889	[DllImport("Assimp", EntryPoint="CSharp_new_aiNodeAnim")]
	890	public static extern IntPtr new_aiNodeAnim();
	891
	892	[DllImport("Assimp", EntryPoint="CSharp_delete_aiNodeAnim")]
	893	public static extern void delete_aiNodeAnim(HandleRef jarg1);
	894
	895	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_GetmPositionKeys")]
	896	public static extern IntPtr aiNodeAnim_GetmPositionKeys(HandleRef jarg1);
	897
	898	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_GetmRotationKeys")]
	899	public static extern IntPtr aiNodeAnim_GetmRotationKeys(HandleRef jarg1);
	900
	901	[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_GetmScalingKeys")]
	902	public static extern IntPtr aiNodeAnim_GetmScalingKeys(HandleRef jarg1);
	903
	904	[DllImport("Assimp", EntryPoint="CSharp_aiMeshAnim_mName_set")]
	905	public static extern void aiMeshAnim_mName_set(HandleRef jarg1, HandleRef jarg2);
	906
	907	[DllImport("Assimp", EntryPoint="CSharp_aiMeshAnim_mName_get")]
	908	public static extern IntPtr aiMeshAnim_mName_get(HandleRef jarg1);
	909
	910	[DllImport("Assimp", EntryPoint="CSharp_aiMeshAnim_mNumKeys_set")]
	911	public static extern void aiMeshAnim_mNumKeys_set(HandleRef jarg1, uint jarg2);
	912
	913	[DllImport("Assimp", EntryPoint="CSharp_aiMeshAnim_mNumKeys_get")]
	914	public static extern uint aiMeshAnim_mNumKeys_get(HandleRef jarg1);
	915
	916	[DllImport("Assimp", EntryPoint="CSharp_new_aiMeshAnim")]
	917	public static extern IntPtr new_aiMeshAnim();
	918
	919	[DllImport("Assimp", EntryPoint="CSharp_delete_aiMeshAnim")]
	920	public static extern void delete_aiMeshAnim(HandleRef jarg1);
	921
	922	[DllImport("Assimp", EntryPoint="CSharp_aiMeshAnim_GetmKeys")]
	923	public static extern IntPtr aiMeshAnim_GetmKeys(HandleRef jarg1);
	924
	925	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mName_set")]
	926	public static extern void aiAnimation_mName_set(HandleRef jarg1, HandleRef jarg2);
	927
	928	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mName_get")]
	929	public static extern IntPtr aiAnimation_mName_get(HandleRef jarg1);
	930
	931	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mDuration_set")]
	932	public static extern void aiAnimation_mDuration_set(HandleRef jarg1, double jarg2);
	933
	934	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mDuration_get")]
	935	public static extern double aiAnimation_mDuration_get(HandleRef jarg1);
	936
	937	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mTicksPerSecond_set")]
	938	public static extern void aiAnimation_mTicksPerSecond_set(HandleRef jarg1, double jarg2);
	939
	940	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mTicksPerSecond_get")]
	941	public static extern double aiAnimation_mTicksPerSecond_get(HandleRef jarg1);
	942
	943	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mNumChannels_set")]
	944	public static extern void aiAnimation_mNumChannels_set(HandleRef jarg1, uint jarg2);
	945
	946	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mNumChannels_get")]
	947	public static extern uint aiAnimation_mNumChannels_get(HandleRef jarg1);
	948
	949	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mNumMeshChannels_set")]
	950	public static extern void aiAnimation_mNumMeshChannels_set(HandleRef jarg1, uint jarg2);
	951
	952	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mNumMeshChannels_get")]
	953	public static extern uint aiAnimation_mNumMeshChannels_get(HandleRef jarg1);
	954
	955	[DllImport("Assimp", EntryPoint="CSharp_new_aiAnimation")]
	956	public static extern IntPtr new_aiAnimation();
	957
	958	[DllImport("Assimp", EntryPoint="CSharp_delete_aiAnimation")]
	959	public static extern void delete_aiAnimation(HandleRef jarg1);
	960
	961	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_GetmChannels")]
	962	public static extern IntPtr aiAnimation_GetmChannels(HandleRef jarg1);
	963
	964	[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_GetmMeshChannels")]
	965	public static extern IntPtr aiAnimation_GetmMeshChannels(HandleRef jarg1);
	966
	967	[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_FACE_INDICES_get")]
	968	public static extern int AI_MAX_FACE_INDICES_get();
	969
	970	[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_BONE_WEIGHTS_get")]
	971	public static extern int AI_MAX_BONE_WEIGHTS_get();
	972
	973	[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_VERTICES_get")]
	974	public static extern int AI_MAX_VERTICES_get();
	975
	976	[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_FACES_get")]
	977	public static extern int AI_MAX_FACES_get();
	978
	979	[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_NUMBER_OF_COLOR_SETS_get")]
	980	public static extern int AI_MAX_NUMBER_OF_COLOR_SETS_get();
	981
	982	[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_NUMBER_OF_TEXTURECOORDS_get")]
	983	public static extern int AI_MAX_NUMBER_OF_TEXTURECOORDS_get();
	984
	985	[DllImport("Assimp", EntryPoint="CSharp_aiFace_mNumIndices_set")]
	986	public static extern void aiFace_mNumIndices_set(HandleRef jarg1, uint jarg2);
	987
	988	[DllImport("Assimp", EntryPoint="CSharp_aiFace_mNumIndices_get")]
	989	public static extern uint aiFace_mNumIndices_get(HandleRef jarg1);
	990
	991	[DllImport("Assimp", EntryPoint="CSharp_new_aiFace__SWIG_0")]
	992	public static extern IntPtr new_aiFace__SWIG_0();
	993
	994	[DllImport("Assimp", EntryPoint="CSharp_delete_aiFace")]
	995	public static extern void delete_aiFace(HandleRef jarg1);
	996
	997	[DllImport("Assimp", EntryPoint="CSharp_new_aiFace__SWIG_1")]
	998	public static extern IntPtr new_aiFace__SWIG_1(HandleRef jarg1);
	999
	1000	[DllImport("Assimp", EntryPoint="CSharp_aiFace___set__")]
	1001	public static extern IntPtr aiFace___set__(HandleRef jarg1, HandleRef jarg2);
	1002
	1003	[DllImport("Assimp", EntryPoint="CSharp_aiFace___equal__")]
	1004	public static extern bool aiFace___equal__(HandleRef jarg1, HandleRef jarg2);
	1005
	1006	[DllImport("Assimp", EntryPoint="CSharp_aiFace___nequal__")]
	1007	public static extern bool aiFace___nequal__(HandleRef jarg1, HandleRef jarg2);
	1008
	1009	[DllImport("Assimp", EntryPoint="CSharp_aiFace_GetmIndices")]
	1010	public static extern IntPtr aiFace_GetmIndices(HandleRef jarg1);
	1011
	1012	[DllImport("Assimp", EntryPoint="CSharp_aiVertexWeight_mVertexId_set")]
	1013	public static extern void aiVertexWeight_mVertexId_set(HandleRef jarg1, uint jarg2);
	1014
	1015	[DllImport("Assimp", EntryPoint="CSharp_aiVertexWeight_mVertexId_get")]
	1016	public static extern uint aiVertexWeight_mVertexId_get(HandleRef jarg1);
	1017
	1018	[DllImport("Assimp", EntryPoint="CSharp_aiVertexWeight_mWeight_set")]
	1019	public static extern void aiVertexWeight_mWeight_set(HandleRef jarg1, float jarg2);
	1020
	1021	[DllImport("Assimp", EntryPoint="CSharp_aiVertexWeight_mWeight_get")]
	1022	public static extern float aiVertexWeight_mWeight_get(HandleRef jarg1);
	1023
	1024	[DllImport("Assimp", EntryPoint="CSharp_new_aiVertexWeight__SWIG_0")]
	1025	public static extern IntPtr new_aiVertexWeight__SWIG_0();
	1026
	1027	[DllImport("Assimp", EntryPoint="CSharp_new_aiVertexWeight__SWIG_1")]
	1028	public static extern IntPtr new_aiVertexWeight__SWIG_1(uint jarg1, float jarg2);
	1029
	1030	[DllImport("Assimp", EntryPoint="CSharp_delete_aiVertexWeight")]
	1031	public static extern void delete_aiVertexWeight(HandleRef jarg1);
	1032
	1033	[DllImport("Assimp", EntryPoint="CSharp_aiBone_mName_set")]
	1034	public static extern void aiBone_mName_set(HandleRef jarg1, HandleRef jarg2);
	1035
	1036	[DllImport("Assimp", EntryPoint="CSharp_aiBone_mName_get")]
	1037	public static extern IntPtr aiBone_mName_get(HandleRef jarg1);
	1038
	1039	[DllImport("Assimp", EntryPoint="CSharp_aiBone_mNumWeights_set")]
	1040	public static extern void aiBone_mNumWeights_set(HandleRef jarg1, uint jarg2);
	1041
	1042	[DllImport("Assimp", EntryPoint="CSharp_aiBone_mNumWeights_get")]
	1043	public static extern uint aiBone_mNumWeights_get(HandleRef jarg1);
	1044
	1045	[DllImport("Assimp", EntryPoint="CSharp_aiBone_mOffsetMatrix_set")]
	1046	public static extern void aiBone_mOffsetMatrix_set(HandleRef jarg1, HandleRef jarg2);
	1047
	1048	[DllImport("Assimp", EntryPoint="CSharp_aiBone_mOffsetMatrix_get")]
	1049	public static extern IntPtr aiBone_mOffsetMatrix_get(HandleRef jarg1);
	1050
	1051	[DllImport("Assimp", EntryPoint="CSharp_new_aiBone__SWIG_0")]
	1052	public static extern IntPtr new_aiBone__SWIG_0();
	1053
	1054	[DllImport("Assimp", EntryPoint="CSharp_new_aiBone__SWIG_1")]
	1055	public static extern IntPtr new_aiBone__SWIG_1(HandleRef jarg1);
	1056
	1057	[DllImport("Assimp", EntryPoint="CSharp_delete_aiBone")]
	1058	public static extern void delete_aiBone(HandleRef jarg1);
	1059
	1060	[DllImport("Assimp", EntryPoint="CSharp_aiBone_GetmWeights")]
	1061	public static extern IntPtr aiBone_GetmWeights(HandleRef jarg1);
	1062
	1063	[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_mBitangents_set")]
	1064	public static extern void aiAnimMesh_mBitangents_set(HandleRef jarg1, HandleRef jarg2);
	1065
	1066	[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_mBitangents_get")]
	1067	public static extern IntPtr aiAnimMesh_mBitangents_get(HandleRef jarg1);
	1068
	1069	[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_mNumVertices_set")]
	1070	public static extern void aiAnimMesh_mNumVertices_set(HandleRef jarg1, uint jarg2);
	1071
	1072	[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_mNumVertices_get")]
	1073	public static extern uint aiAnimMesh_mNumVertices_get(HandleRef jarg1);
	1074
	1075	[DllImport("Assimp", EntryPoint="CSharp_new_aiAnimMesh")]
	1076	public static extern IntPtr new_aiAnimMesh();
	1077
	1078	[DllImport("Assimp", EntryPoint="CSharp_delete_aiAnimMesh")]
	1079	public static extern void delete_aiAnimMesh(HandleRef jarg1);
	1080
	1081	[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_HasPositions")]
	1082	public static extern bool aiAnimMesh_HasPositions(HandleRef jarg1);
	1083
	1084	[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_HasNormals")]
	1085	public static extern bool aiAnimMesh_HasNormals(HandleRef jarg1);
	1086
	1087	[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_HasTangentsAndBitangents")]
	1088	public static extern bool aiAnimMesh_HasTangentsAndBitangents(HandleRef jarg1);
	1089
	1090	[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_HasVertexColors")]
	1091	public static extern bool aiAnimMesh_HasVertexColors(HandleRef jarg1, uint jarg2);
	1092
	1093	[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_HasTextureCoords")]
	1094	public static extern bool aiAnimMesh_HasTextureCoords(HandleRef jarg1, uint jarg2);
	1095
	1096	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mPrimitiveTypes_set")]
	1097	public static extern void aiMesh_mPrimitiveTypes_set(HandleRef jarg1, uint jarg2);
	1098
	1099	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mPrimitiveTypes_get")]
	1100	public static extern uint aiMesh_mPrimitiveTypes_get(HandleRef jarg1);
	1101
	1102	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumVertices_set")]
	1103	public static extern void aiMesh_mNumVertices_set(HandleRef jarg1, uint jarg2);
	1104
	1105	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumVertices_get")]
	1106	public static extern uint aiMesh_mNumVertices_get(HandleRef jarg1);
	1107
	1108	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumFaces_set")]
	1109	public static extern void aiMesh_mNumFaces_set(HandleRef jarg1, uint jarg2);
	1110
	1111	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumFaces_get")]
	1112	public static extern uint aiMesh_mNumFaces_get(HandleRef jarg1);
	1113
	1114	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumBones_set")]
	1115	public static extern void aiMesh_mNumBones_set(HandleRef jarg1, uint jarg2);
	1116
	1117	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumBones_get")]
	1118	public static extern uint aiMesh_mNumBones_get(HandleRef jarg1);
	1119
	1120	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mMaterialIndex_set")]
	1121	public static extern void aiMesh_mMaterialIndex_set(HandleRef jarg1, uint jarg2);
	1122
	1123	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mMaterialIndex_get")]
	1124	public static extern uint aiMesh_mMaterialIndex_get(HandleRef jarg1);
	1125
	1126	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mName_set")]
	1127	public static extern void aiMesh_mName_set(HandleRef jarg1, HandleRef jarg2);
	1128
	1129	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mName_get")]
	1130	public static extern IntPtr aiMesh_mName_get(HandleRef jarg1);
	1131
	1132	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumAnimMeshes_set")]
	1133	public static extern void aiMesh_mNumAnimMeshes_set(HandleRef jarg1, uint jarg2);
	1134
	1135	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumAnimMeshes_get")]
	1136	public static extern uint aiMesh_mNumAnimMeshes_get(HandleRef jarg1);
	1137
	1138	[DllImport("Assimp", EntryPoint="CSharp_new_aiMesh")]
	1139	public static extern IntPtr new_aiMesh();
	1140
	1141	[DllImport("Assimp", EntryPoint="CSharp_delete_aiMesh")]
	1142	public static extern void delete_aiMesh(HandleRef jarg1);
	1143
	1144	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasPositions")]
	1145	public static extern bool aiMesh_HasPositions(HandleRef jarg1);
	1146
	1147	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasFaces")]
	1148	public static extern bool aiMesh_HasFaces(HandleRef jarg1);
	1149
	1150	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasNormals")]
	1151	public static extern bool aiMesh_HasNormals(HandleRef jarg1);
	1152
	1153	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasTangentsAndBitangents")]
	1154	public static extern bool aiMesh_HasTangentsAndBitangents(HandleRef jarg1);
	1155
	1156	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasVertexColors")]
	1157	public static extern bool aiMesh_HasVertexColors(HandleRef jarg1, uint jarg2);
	1158
	1159	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasTextureCoords")]
	1160	public static extern bool aiMesh_HasTextureCoords(HandleRef jarg1, uint jarg2);
	1161
	1162	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetNumUVChannels")]
	1163	public static extern uint aiMesh_GetNumUVChannels(HandleRef jarg1);
	1164
	1165	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetNumColorChannels")]
	1166	public static extern uint aiMesh_GetNumColorChannels(HandleRef jarg1);
	1167
	1168	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasBones")]
	1169	public static extern bool aiMesh_HasBones(HandleRef jarg1);
	1170
	1171	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmAnimMeshes")]
	1172	public static extern IntPtr aiMesh_GetmAnimMeshes(HandleRef jarg1);
	1173
	1174	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmBitangents")]
	1175	public static extern IntPtr aiMesh_GetmBitangents(HandleRef jarg1);
	1176
	1177	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmBones")]
	1178	public static extern IntPtr aiMesh_GetmBones(HandleRef jarg1);
	1179
	1180	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmColors")]
	1181	public static extern IntPtr aiMesh_GetmColors(HandleRef jarg1);
	1182
	1183	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmFaces")]
	1184	public static extern IntPtr aiMesh_GetmFaces(HandleRef jarg1);
	1185
	1186	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmNormals")]
	1187	public static extern IntPtr aiMesh_GetmNormals(HandleRef jarg1);
	1188
	1189	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmTangents")]
	1190	public static extern IntPtr aiMesh_GetmTangents(HandleRef jarg1);
	1191
	1192	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmTextureCoords")]
	1193	public static extern IntPtr aiMesh_GetmTextureCoords(HandleRef jarg1);
	1194
	1195	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmNumUVComponents")]
	1196	public static extern IntPtr aiMesh_GetmNumUVComponents(HandleRef jarg1);
	1197
	1198	[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmVertices")]
	1199	public static extern IntPtr aiMesh_GetmVertices(HandleRef jarg1);
	1200
	1201	[DllImport("Assimp", EntryPoint="CSharp_AI_DEFAULT_MATERIAL_NAME_get")]
	1202	public static extern string AI_DEFAULT_MATERIAL_NAME_get();
	1203
	1204	[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mTranslation_set")]
	1205	public static extern void aiUVTransform_mTranslation_set(HandleRef jarg1, HandleRef jarg2);
	1206
	1207	[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mTranslation_get")]
	1208	public static extern IntPtr aiUVTransform_mTranslation_get(HandleRef jarg1);
	1209
	1210	[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mScaling_set")]
	1211	public static extern void aiUVTransform_mScaling_set(HandleRef jarg1, HandleRef jarg2);
	1212
	1213	[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mScaling_get")]
	1214	public static extern IntPtr aiUVTransform_mScaling_get(HandleRef jarg1);
	1215
	1216	[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mRotation_set")]
	1217	public static extern void aiUVTransform_mRotation_set(HandleRef jarg1, float jarg2);
	1218
	1219	[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mRotation_get")]
	1220	public static extern float aiUVTransform_mRotation_get(HandleRef jarg1);
	1221
	1222	[DllImport("Assimp", EntryPoint="CSharp_new_aiUVTransform")]
	1223	public static extern IntPtr new_aiUVTransform();
	1224
	1225	[DllImport("Assimp", EntryPoint="CSharp_delete_aiUVTransform")]
	1226	public static extern void delete_aiUVTransform(HandleRef jarg1);
	1227
	1228	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mKey_set")]
	1229	public static extern void aiMaterialProperty_mKey_set(HandleRef jarg1, HandleRef jarg2);
	1230
	1231	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mKey_get")]
	1232	public static extern IntPtr aiMaterialProperty_mKey_get(HandleRef jarg1);
	1233
	1234	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mSemantic_set")]
	1235	public static extern void aiMaterialProperty_mSemantic_set(HandleRef jarg1, uint jarg2);
	1236
	1237	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mSemantic_get")]
	1238	public static extern uint aiMaterialProperty_mSemantic_get(HandleRef jarg1);
	1239
	1240	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mIndex_set")]
	1241	public static extern void aiMaterialProperty_mIndex_set(HandleRef jarg1, uint jarg2);
	1242
	1243	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mIndex_get")]
	1244	public static extern uint aiMaterialProperty_mIndex_get(HandleRef jarg1);
	1245
	1246	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mDataLength_set")]
	1247	public static extern void aiMaterialProperty_mDataLength_set(HandleRef jarg1, uint jarg2);
	1248
	1249	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mDataLength_get")]
	1250	public static extern uint aiMaterialProperty_mDataLength_get(HandleRef jarg1);
	1251
	1252	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mType_set")]
	1253	public static extern void aiMaterialProperty_mType_set(HandleRef jarg1, int jarg2);
	1254
	1255	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mType_get")]
	1256	public static extern int aiMaterialProperty_mType_get(HandleRef jarg1);
	1257
	1258	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mData_set")]
	1259	public static extern void aiMaterialProperty_mData_set(HandleRef jarg1, string jarg2);
	1260
	1261	[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mData_get")]
	1262	public static extern string aiMaterialProperty_mData_get(HandleRef jarg1);
	1263
	1264	[DllImport("Assimp", EntryPoint="CSharp_new_aiMaterialProperty")]
	1265	public static extern IntPtr new_aiMaterialProperty();
	1266
	1267	[DllImport("Assimp", EntryPoint="CSharp_delete_aiMaterialProperty")]
	1268	public static extern void delete_aiMaterialProperty(HandleRef jarg1);
	1269
	1270	[DllImport("Assimp", EntryPoint="CSharp_new_aiMaterial")]
	1271	public static extern IntPtr new_aiMaterial();
	1272
	1273	[DllImport("Assimp", EntryPoint="CSharp_delete_aiMaterial")]
	1274	public static extern void delete_aiMaterial(HandleRef jarg1);
	1275
	1276	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureCount")]
	1277	public static extern uint aiMaterial_GetTextureCount(HandleRef jarg1, int jarg2);
	1278
	1279	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_AddBinaryProperty")]
	1280	public static extern int aiMaterial_AddBinaryProperty(HandleRef jarg1, HandleRef jarg2, uint jarg3, string jarg4, uint jarg5, uint jarg6, int jarg7);
	1281
	1282	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_AddProperty__SWIG_0")]
	1283	public static extern int aiMaterial_AddProperty__SWIG_0(HandleRef jarg1, HandleRef jarg2, string jarg3, uint jarg4, uint jarg5);
	1284
	1285	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_AddProperty__SWIG_1")]
	1286	public static extern int aiMaterial_AddProperty__SWIG_1(HandleRef jarg1, HandleRef jarg2, string jarg3, uint jarg4);
	1287
	1288	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_AddProperty__SWIG_2")]
	1289	public static extern int aiMaterial_AddProperty__SWIG_2(HandleRef jarg1, HandleRef jarg2, string jarg3);
	1290
	1291	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_RemoveProperty__SWIG_0")]
	1292	public static extern int aiMaterial_RemoveProperty__SWIG_0(HandleRef jarg1, string jarg2, uint jarg3, uint jarg4);
	1293
	1294	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_RemoveProperty__SWIG_1")]
	1295	public static extern int aiMaterial_RemoveProperty__SWIG_1(HandleRef jarg1, string jarg2, uint jarg3);
	1296
	1297	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_RemoveProperty__SWIG_2")]
	1298	public static extern int aiMaterial_RemoveProperty__SWIG_2(HandleRef jarg1, string jarg2);
	1299
	1300	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_Clear")]
	1301	public static extern void aiMaterial_Clear(HandleRef jarg1);
	1302
	1303	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_CopyPropertyList")]
	1304	public static extern void aiMaterial_CopyPropertyList(HandleRef jarg1, HandleRef jarg2);
	1305
	1306	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetDiffuse")]
	1307	public static extern bool aiMaterial_GetDiffuse(HandleRef jarg1, HandleRef jarg2);
	1308
	1309	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetSpecular")]
	1310	public static extern bool aiMaterial_GetSpecular(HandleRef jarg1, HandleRef jarg2);
	1311
	1312	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetAmbient")]
	1313	public static extern bool aiMaterial_GetAmbient(HandleRef jarg1, HandleRef jarg2);
	1314
	1315	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetEmissive")]
	1316	public static extern bool aiMaterial_GetEmissive(HandleRef jarg1, HandleRef jarg2);
	1317
	1318	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetOpacity")]
	1319	public static extern bool aiMaterial_GetOpacity(HandleRef jarg1, ref float jarg2);
	1320
	1321	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetShininessStrength")]
	1322	public static extern bool aiMaterial_GetShininessStrength(HandleRef jarg1, ref float jarg2);
	1323
	1324	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetShadingModel")]
	1325	public static extern bool aiMaterial_GetShadingModel(HandleRef jarg1, ref int jarg2);
	1326
	1327	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTexFlagsDiffuse0")]
	1328	public static extern bool aiMaterial_GetTexFlagsDiffuse0(HandleRef jarg1, ref int jarg2);
	1329
	1330	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetMappingModeUDiffuse0")]
	1331	public static extern bool aiMaterial_GetMappingModeUDiffuse0(HandleRef jarg1, ref int jarg2);
	1332
	1333	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetMappingModeVDiffuse0")]
	1334	public static extern bool aiMaterial_GetMappingModeVDiffuse0(HandleRef jarg1, ref int jarg2);
	1335
	1336	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureDiffuse0")]
	1337	public static extern bool aiMaterial_GetTextureDiffuse0(HandleRef jarg1, HandleRef jarg2);
	1338
	1339	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureSpecular0")]
	1340	public static extern bool aiMaterial_GetTextureSpecular0(HandleRef jarg1, HandleRef jarg2);
	1341
	1342	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureOpacity0")]
	1343	public static extern bool aiMaterial_GetTextureOpacity0(HandleRef jarg1, HandleRef jarg2);
	1344
	1345	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureAmbient0")]
	1346	public static extern bool aiMaterial_GetTextureAmbient0(HandleRef jarg1, HandleRef jarg2);
	1347
	1348	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureEmissive0")]
	1349	public static extern bool aiMaterial_GetTextureEmissive0(HandleRef jarg1, HandleRef jarg2);
	1350
	1351	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureShininess0")]
	1352	public static extern bool aiMaterial_GetTextureShininess0(HandleRef jarg1, HandleRef jarg2);
	1353
	1354	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureLightmap0")]
	1355	public static extern bool aiMaterial_GetTextureLightmap0(HandleRef jarg1, HandleRef jarg2);
	1356
	1357	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureNormals0")]
	1358	public static extern bool aiMaterial_GetTextureNormals0(HandleRef jarg1, HandleRef jarg2);
	1359
	1360	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureHeight0")]
	1361	public static extern bool aiMaterial_GetTextureHeight0(HandleRef jarg1, HandleRef jarg2);
	1362
	1363	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetGlobalBackgroundImage")]
	1364	public static extern bool aiMaterial_GetGlobalBackgroundImage(HandleRef jarg1, HandleRef jarg2);
	1365
	1366	[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTwoSided")]
	1367	public static extern bool aiMaterial_GetTwoSided(HandleRef jarg1, ref int jarg2);
	1368
	1369	[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_TEXTURE_BASE_get")]
	1370	public static extern string _AI_MATKEY_TEXTURE_BASE_get();
	1371
	1372	[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_UVWSRC_BASE_get")]
	1373	public static extern string _AI_MATKEY_UVWSRC_BASE_get();
	1374
	1375	[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_TEXOP_BASE_get")]
	1376	public static extern string _AI_MATKEY_TEXOP_BASE_get();
	1377
	1378	[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_MAPPING_BASE_get")]
	1379	public static extern string _AI_MATKEY_MAPPING_BASE_get();
	1380
	1381	[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_TEXBLEND_BASE_get")]
	1382	public static extern string _AI_MATKEY_TEXBLEND_BASE_get();
	1383
	1384	[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_MAPPINGMODE_U_BASE_get")]
	1385	public static extern string _AI_MATKEY_MAPPINGMODE_U_BASE_get();
	1386
	1387	[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_MAPPINGMODE_V_BASE_get")]
	1388	public static extern string _AI_MATKEY_MAPPINGMODE_V_BASE_get();
	1389
	1390	[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_TEXMAP_AXIS_BASE_get")]
	1391	public static extern string _AI_MATKEY_TEXMAP_AXIS_BASE_get();
	1392
	1393	[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_UVTRANSFORM_BASE_get")]
	1394	public static extern string _AI_MATKEY_UVTRANSFORM_BASE_get();
	1395
	1396	[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_TEXFLAGS_BASE_get")]
	1397	public static extern string _AI_MATKEY_TEXFLAGS_BASE_get();
	1398
	1399	[DllImport("Assimp", EntryPoint="CSharp_aiNode_mName_set")]
	1400	public static extern void aiNode_mName_set(HandleRef jarg1, HandleRef jarg2);
	1401
	1402	[DllImport("Assimp", EntryPoint="CSharp_aiNode_mName_get")]
	1403	public static extern IntPtr aiNode_mName_get(HandleRef jarg1);
	1404
	1405	[DllImport("Assimp", EntryPoint="CSharp_aiNode_mTransformation_set")]
	1406	public static extern void aiNode_mTransformation_set(HandleRef jarg1, HandleRef jarg2);
	1407
	1408	[DllImport("Assimp", EntryPoint="CSharp_aiNode_mTransformation_get")]
	1409	public static extern IntPtr aiNode_mTransformation_get(HandleRef jarg1);
	1410
	1411	[DllImport("Assimp", EntryPoint="CSharp_aiNode_mParent_set")]
	1412	public static extern void aiNode_mParent_set(HandleRef jarg1, HandleRef jarg2);
	1413
	1414	[DllImport("Assimp", EntryPoint="CSharp_aiNode_mParent_get")]
	1415	public static extern IntPtr aiNode_mParent_get(HandleRef jarg1);
	1416
	1417	[DllImport("Assimp", EntryPoint="CSharp_aiNode_mNumChildren_set")]
	1418	public static extern void aiNode_mNumChildren_set(HandleRef jarg1, uint jarg2);
	1419
	1420	[DllImport("Assimp", EntryPoint="CSharp_aiNode_mNumChildren_get")]
	1421	public static extern uint aiNode_mNumChildren_get(HandleRef jarg1);
	1422
	1423	[DllImport("Assimp", EntryPoint="CSharp_aiNode_mNumMeshes_set")]
	1424	public static extern void aiNode_mNumMeshes_set(HandleRef jarg1, uint jarg2);
	1425
	1426	[DllImport("Assimp", EntryPoint="CSharp_aiNode_mNumMeshes_get")]
	1427	public static extern uint aiNode_mNumMeshes_get(HandleRef jarg1);
	1428
	1429	[DllImport("Assimp", EntryPoint="CSharp_new_aiNode__SWIG_0")]
	1430	public static extern IntPtr new_aiNode__SWIG_0();
	1431
	1432	[DllImport("Assimp", EntryPoint="CSharp_new_aiNode__SWIG_1")]
	1433	public static extern IntPtr new_aiNode__SWIG_1(string jarg1);
	1434
	1435	[DllImport("Assimp", EntryPoint="CSharp_delete_aiNode")]
	1436	public static extern void delete_aiNode(HandleRef jarg1);
	1437
	1438	[DllImport("Assimp", EntryPoint="CSharp_aiNode_FindNode__SWIG_0")]
	1439	public static extern IntPtr aiNode_FindNode__SWIG_0(HandleRef jarg1, HandleRef jarg2);
	1440
	1441	[DllImport("Assimp", EntryPoint="CSharp_aiNode_FindNode__SWIG_1")]
	1442	public static extern IntPtr aiNode_FindNode__SWIG_1(HandleRef jarg1, string jarg2);
	1443
	1444	[DllImport("Assimp", EntryPoint="CSharp_aiNode_GetmChildren")]
	1445	public static extern IntPtr aiNode_GetmChildren(HandleRef jarg1);
	1446
	1447	[DllImport("Assimp", EntryPoint="CSharp_aiNode_GetmMeshes")]
	1448	public static extern IntPtr aiNode_GetmMeshes(HandleRef jarg1);
	1449
	1450	[DllImport("Assimp", EntryPoint="CSharp_AI_SCENE_FLAGS_INCOMPLETE_get")]
	1451	public static extern int AI_SCENE_FLAGS_INCOMPLETE_get();
	1452
	1453	[DllImport("Assimp", EntryPoint="CSharp_AI_SCENE_FLAGS_VALIDATED_get")]
	1454	public static extern int AI_SCENE_FLAGS_VALIDATED_get();
	1455
	1456	[DllImport("Assimp", EntryPoint="CSharp_AI_SCENE_FLAGS_VALIDATION_WARNING_get")]
	1457	public static extern int AI_SCENE_FLAGS_VALIDATION_WARNING_get();
	1458
	1459	[DllImport("Assimp", EntryPoint="CSharp_AI_SCENE_FLAGS_NON_VERBOSE_FORMAT_get")]
	1460	public static extern int AI_SCENE_FLAGS_NON_VERBOSE_FORMAT_get();
	1461
	1462	[DllImport("Assimp", EntryPoint="CSharp_AI_SCENE_FLAGS_TERRAIN_get")]
	1463	public static extern int AI_SCENE_FLAGS_TERRAIN_get();
	1464
	1465	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mFlags_set")]
	1466	public static extern void aiScene_mFlags_set(HandleRef jarg1, uint jarg2);
	1467
	1468	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mFlags_get")]
	1469	public static extern uint aiScene_mFlags_get(HandleRef jarg1);
	1470
	1471	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mRootNode_set")]
	1472	public static extern void aiScene_mRootNode_set(HandleRef jarg1, HandleRef jarg2);
	1473
	1474	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mRootNode_get")]
	1475	public static extern IntPtr aiScene_mRootNode_get(HandleRef jarg1);
	1476
	1477	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumMeshes_set")]
	1478	public static extern void aiScene_mNumMeshes_set(HandleRef jarg1, uint jarg2);
	1479
	1480	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumMeshes_get")]
	1481	public static extern uint aiScene_mNumMeshes_get(HandleRef jarg1);
	1482
	1483	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumMaterials_set")]
	1484	public static extern void aiScene_mNumMaterials_set(HandleRef jarg1, uint jarg2);
	1485
	1486	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumMaterials_get")]
	1487	public static extern uint aiScene_mNumMaterials_get(HandleRef jarg1);
	1488
	1489	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumAnimations_set")]
	1490	public static extern void aiScene_mNumAnimations_set(HandleRef jarg1, uint jarg2);
	1491
	1492	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumAnimations_get")]
	1493	public static extern uint aiScene_mNumAnimations_get(HandleRef jarg1);
	1494
	1495	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumTextures_set")]
	1496	public static extern void aiScene_mNumTextures_set(HandleRef jarg1, uint jarg2);
	1497
	1498	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumTextures_get")]
	1499	public static extern uint aiScene_mNumTextures_get(HandleRef jarg1);
	1500
	1501	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumLights_set")]
	1502	public static extern void aiScene_mNumLights_set(HandleRef jarg1, uint jarg2);
	1503
	1504	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumLights_get")]
	1505	public static extern uint aiScene_mNumLights_get(HandleRef jarg1);
	1506
	1507	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumCameras_set")]
	1508	public static extern void aiScene_mNumCameras_set(HandleRef jarg1, uint jarg2);
	1509
	1510	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumCameras_get")]
	1511	public static extern uint aiScene_mNumCameras_get(HandleRef jarg1);
	1512
	1513	[DllImport("Assimp", EntryPoint="CSharp_new_aiScene")]
	1514	public static extern IntPtr new_aiScene();
	1515
	1516	[DllImport("Assimp", EntryPoint="CSharp_delete_aiScene")]
	1517	public static extern void delete_aiScene(HandleRef jarg1);
	1518
	1519	[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasMeshes")]
	1520	public static extern bool aiScene_HasMeshes(HandleRef jarg1);
	1521
	1522	[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasMaterials")]
	1523	public static extern bool aiScene_HasMaterials(HandleRef jarg1);
	1524
	1525	[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasLights")]
	1526	public static extern bool aiScene_HasLights(HandleRef jarg1);
	1527
	1528	[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasTextures")]
	1529	public static extern bool aiScene_HasTextures(HandleRef jarg1);
	1530
	1531	[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasCameras")]
	1532	public static extern bool aiScene_HasCameras(HandleRef jarg1);
	1533
	1534	[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasAnimations")]
	1535	public static extern bool aiScene_HasAnimations(HandleRef jarg1);
	1536
	1537	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mPrivate_set")]
	1538	public static extern void aiScene_mPrivate_set(HandleRef jarg1, HandleRef jarg2);
	1539
	1540	[DllImport("Assimp", EntryPoint="CSharp_aiScene_mPrivate_get")]
	1541	public static extern IntPtr aiScene_mPrivate_get(HandleRef jarg1);
	1542
	1543	[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmAnimations")]
	1544	public static extern IntPtr aiScene_GetmAnimations(HandleRef jarg1);
	1545
	1546	[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmCameras")]
	1547	public static extern IntPtr aiScene_GetmCameras(HandleRef jarg1);
	1548
	1549	[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmLights")]
	1550	public static extern IntPtr aiScene_GetmLights(HandleRef jarg1);
	1551
	1552	[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmMaterials")]
	1553	public static extern IntPtr aiScene_GetmMaterials(HandleRef jarg1);
	1554
	1555	[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmMeshes")]
	1556	public static extern IntPtr aiScene_GetmMeshes(HandleRef jarg1);
	1557
	1558	[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmTextures")]
	1559	public static extern IntPtr aiScene_GetmTextures(HandleRef jarg1);
	1560
	1561	[DllImport("Assimp", EntryPoint="CSharp_aiTexel_b_set")]
	1562	public static extern void aiTexel_b_set(HandleRef jarg1, byte jarg2);
	1563
	1564	[DllImport("Assimp", EntryPoint="CSharp_aiTexel_b_get")]
	1565	public static extern byte aiTexel_b_get(HandleRef jarg1);
	1566
	1567	[DllImport("Assimp", EntryPoint="CSharp_aiTexel_g_set")]
	1568	public static extern void aiTexel_g_set(HandleRef jarg1, byte jarg2);
	1569
	1570	[DllImport("Assimp", EntryPoint="CSharp_aiTexel_g_get")]
	1571	public static extern byte aiTexel_g_get(HandleRef jarg1);
	1572
	1573	[DllImport("Assimp", EntryPoint="CSharp_aiTexel_r_set")]
	1574	public static extern void aiTexel_r_set(HandleRef jarg1, byte jarg2);
	1575
	1576	[DllImport("Assimp", EntryPoint="CSharp_aiTexel_r_get")]
	1577	public static extern byte aiTexel_r_get(HandleRef jarg1);
	1578
	1579	[DllImport("Assimp", EntryPoint="CSharp_aiTexel_a_set")]
	1580	public static extern void aiTexel_a_set(HandleRef jarg1, byte jarg2);
	1581
	1582	[DllImport("Assimp", EntryPoint="CSharp_aiTexel_a_get")]
	1583	public static extern byte aiTexel_a_get(HandleRef jarg1);
	1584
	1585	[DllImport("Assimp", EntryPoint="CSharp_aiTexel___equal__")]
	1586	public static extern bool aiTexel___equal__(HandleRef jarg1, HandleRef jarg2);
	1587
	1588	[DllImport("Assimp", EntryPoint="CSharp_aiTexel___nequal__")]
	1589	public static extern bool aiTexel___nequal__(HandleRef jarg1, HandleRef jarg2);
	1590
	1591	[DllImport("Assimp", EntryPoint="CSharp_new_aiTexel")]
	1592	public static extern IntPtr new_aiTexel();
	1593
	1594	[DllImport("Assimp", EntryPoint="CSharp_delete_aiTexel")]
	1595	public static extern void delete_aiTexel(HandleRef jarg1);
	1596
	1597	[DllImport("Assimp", EntryPoint="CSharp_aiTexture_mWidth_set")]
	1598	public static extern void aiTexture_mWidth_set(HandleRef jarg1, uint jarg2);
	1599
	1600	[DllImport("Assimp", EntryPoint="CSharp_aiTexture_mWidth_get")]
	1601	public static extern uint aiTexture_mWidth_get(HandleRef jarg1);
	1602
	1603	[DllImport("Assimp", EntryPoint="CSharp_aiTexture_mHeight_set")]
	1604	public static extern void aiTexture_mHeight_set(HandleRef jarg1, uint jarg2);
	1605
	1606	[DllImport("Assimp", EntryPoint="CSharp_aiTexture_mHeight_get")]
	1607	public static extern uint aiTexture_mHeight_get(HandleRef jarg1);
	1608
	1609	[DllImport("Assimp", EntryPoint="CSharp_aiTexture_achFormatHint_set")]
	1610	public static extern void aiTexture_achFormatHint_set(HandleRef jarg1, string jarg2);
	1611
	1612	[DllImport("Assimp", EntryPoint="CSharp_aiTexture_achFormatHint_get")]
	1613	public static extern string aiTexture_achFormatHint_get(HandleRef jarg1);
	1614
	1615	[DllImport("Assimp", EntryPoint="CSharp_aiTexture_pcData_set")]
	1616	public static extern void aiTexture_pcData_set(HandleRef jarg1, HandleRef jarg2);
	1617
	1618	[DllImport("Assimp", EntryPoint="CSharp_aiTexture_pcData_get")]
	1619	public static extern IntPtr aiTexture_pcData_get(HandleRef jarg1);
	1620
	1621	[DllImport("Assimp", EntryPoint="CSharp_aiTexture_CheckFormat")]
	1622	public static extern bool aiTexture_CheckFormat(HandleRef jarg1, string jarg2);
	1623
	1624	[DllImport("Assimp", EntryPoint="CSharp_new_aiTexture")]
	1625	public static extern IntPtr new_aiTexture();
	1626
	1627	[DllImport("Assimp", EntryPoint="CSharp_delete_aiTexture")]
	1628	public static extern void delete_aiTexture(HandleRef jarg1);
	1629
	1630	[DllImport("Assimp", EntryPoint="CSharp_AI_PROPERTY_WAS_NOT_EXISTING_get")]
	1631	public static extern int AI_PROPERTY_WAS_NOT_EXISTING_get();
	1632
	1633	[DllImport("Assimp", EntryPoint="CSharp_new_Importer__SWIG_0")]
	1634	public static extern IntPtr new_Importer__SWIG_0();
	1635
	1636	[DllImport("Assimp", EntryPoint="CSharp_new_Importer__SWIG_1")]
	1637	public static extern IntPtr new_Importer__SWIG_1(HandleRef jarg1);
	1638
	1639	[DllImport("Assimp", EntryPoint="CSharp_delete_Importer")]
	1640	public static extern void delete_Importer(HandleRef jarg1);
	1641
	1642	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyInteger__SWIG_0")]
	1643	public static extern int Importer_GetPropertyInteger__SWIG_0(HandleRef jarg1, string jarg2, int jarg3);
	1644
	1645	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyInteger__SWIG_1")]
	1646	public static extern int Importer_GetPropertyInteger__SWIG_1(HandleRef jarg1, string jarg2);
	1647
	1648	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyBool__SWIG_0")]
	1649	public static extern bool Importer_GetPropertyBool__SWIG_0(HandleRef jarg1, string jarg2, bool jarg3);
	1650
	1651	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyBool__SWIG_1")]
	1652	public static extern bool Importer_GetPropertyBool__SWIG_1(HandleRef jarg1, string jarg2);
	1653
	1654	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyFloat__SWIG_0")]
	1655	public static extern float Importer_GetPropertyFloat__SWIG_0(HandleRef jarg1, string jarg2, float jarg3);
	1656
	1657	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyFloat__SWIG_1")]
	1658	public static extern float Importer_GetPropertyFloat__SWIG_1(HandleRef jarg1, string jarg2);
	1659
	1660	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyString__SWIG_0")]
	1661	public static extern string Importer_GetPropertyString__SWIG_0(HandleRef jarg1, string jarg2, string jarg3);
	1662
	1663	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyString__SWIG_1")]
	1664	public static extern string Importer_GetPropertyString__SWIG_1(HandleRef jarg1, string jarg2);
	1665
	1666	[DllImport("Assimp", EntryPoint="CSharp_Importer_IsDefaultIOHandler")]
	1667	public static extern bool Importer_IsDefaultIOHandler(HandleRef jarg1);
	1668
	1669	[DllImport("Assimp", EntryPoint="CSharp_Importer_SetProgressHandler")]
	1670	public static extern void Importer_SetProgressHandler(HandleRef jarg1, HandleRef jarg2);
	1671
	1672	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetProgressHandler")]
	1673	public static extern IntPtr Importer_GetProgressHandler(HandleRef jarg1);
	1674
	1675	[DllImport("Assimp", EntryPoint="CSharp_Importer_IsDefaultProgressHandler")]
	1676	public static extern bool Importer_IsDefaultProgressHandler(HandleRef jarg1);
	1677
	1678	[DllImport("Assimp", EntryPoint="CSharp_Importer_ValidateFlags")]
	1679	public static extern bool Importer_ValidateFlags(HandleRef jarg1, uint jarg2);
	1680
	1681	[DllImport("Assimp", EntryPoint="CSharp_Importer_ReadFile__SWIG_0")]
	1682	public static extern IntPtr Importer_ReadFile__SWIG_0(HandleRef jarg1, string jarg2, uint jarg3);
	1683
	1684	[DllImport("Assimp", EntryPoint="CSharp_Importer_FreeScene")]
	1685	public static extern void Importer_FreeScene(HandleRef jarg1);
	1686
	1687	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetErrorString")]
	1688	public static extern string Importer_GetErrorString(HandleRef jarg1);
	1689
	1690	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetScene")]
	1691	public static extern IntPtr Importer_GetScene(HandleRef jarg1);
	1692
	1693	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetOrphanedScene")]
	1694	public static extern IntPtr Importer_GetOrphanedScene(HandleRef jarg1);
	1695
	1696	[DllImport("Assimp", EntryPoint="CSharp_Importer_IsExtensionSupported__SWIG_0")]
	1697	public static extern bool Importer_IsExtensionSupported__SWIG_0(HandleRef jarg1, string jarg2);
	1698
	1699	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetExtensionList__SWIG_0")]
	1700	public static extern void Importer_GetExtensionList__SWIG_0(HandleRef jarg1, HandleRef jarg2);
	1701
	1702	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetExtensionList__SWIG_1")]
	1703	public static extern void Importer_GetExtensionList__SWIG_1(HandleRef jarg1, HandleRef jarg2);
	1704
	1705	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetImporterCount")]
	1706	public static extern uint Importer_GetImporterCount(HandleRef jarg1);
	1707
	1708	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetImporterInfo")]
	1709	public static extern IntPtr Importer_GetImporterInfo(HandleRef jarg1, uint jarg2);
	1710
	1711	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetImporter__SWIG_0")]
	1712	public static extern IntPtr Importer_GetImporter__SWIG_0(HandleRef jarg1, uint jarg2);
	1713
	1714	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetImporter__SWIG_1")]
	1715	public static extern IntPtr Importer_GetImporter__SWIG_1(HandleRef jarg1, string jarg2);
	1716
	1717	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetImporterIndex")]
	1718	public static extern uint Importer_GetImporterIndex(HandleRef jarg1, string jarg2);
	1719
	1720	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetMemoryRequirements")]
	1721	public static extern void Importer_GetMemoryRequirements(HandleRef jarg1, HandleRef jarg2);
	1722
	1723	[DllImport("Assimp", EntryPoint="CSharp_Importer_SetExtraVerbose")]
	1724	public static extern void Importer_SetExtraVerbose(HandleRef jarg1, bool jarg2);
	1725
	1726	[DllImport("Assimp", EntryPoint="CSharp_Importer_Pimpl__SWIG_0")]
	1727	public static extern IntPtr Importer_Pimpl__SWIG_0(HandleRef jarg1);
	1728
	1729	[DllImport("Assimp", EntryPoint="CSharp_Importer_GetExtensionList__SWIG_2")]
	1730	public static extern string Importer_GetExtensionList__SWIG_2(HandleRef jarg1);
	1731
	1732	[DllImport("Assimp", EntryPoint="CSharp_delete_ProgressHandler")]
	1733	public static extern void delete_ProgressHandler(HandleRef jarg1);
	1734
	1735	[DllImport("Assimp", EntryPoint="CSharp_ProgressHandler_Update__SWIG_0")]
	1736	public static extern bool ProgressHandler_Update__SWIG_0(HandleRef jarg1, float jarg2);
	1737
	1738	[DllImport("Assimp", EntryPoint="CSharp_ProgressHandler_Update__SWIG_1")]
	1739	public static extern bool ProgressHandler_Update__SWIG_1(HandleRef jarg1);
	1740
	1741	[DllImport("Assimp", EntryPoint="CSharp_new_aiColor4D__SWIG_0")]
	1742	public static extern IntPtr new_aiColor4D__SWIG_0();
	1743
	1744	[DllImport("Assimp", EntryPoint="CSharp_new_aiColor4D__SWIG_1")]
	1745	public static extern IntPtr new_aiColor4D__SWIG_1(float jarg1, float jarg2, float jarg3, float jarg4);
	1746
	1747	[DllImport("Assimp", EntryPoint="CSharp_new_aiColor4D__SWIG_2")]
	1748	public static extern IntPtr new_aiColor4D__SWIG_2(float jarg1);
	1749
	1750	[DllImport("Assimp", EntryPoint="CSharp_new_aiColor4D__SWIG_3")]
	1751	public static extern IntPtr new_aiColor4D__SWIG_3(HandleRef jarg1);
	1752
	1753	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___addnset__")]
	1754	public static extern IntPtr aiColor4D___addnset__(HandleRef jarg1, HandleRef jarg2);
	1755
	1756	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___subnset__")]
	1757	public static extern IntPtr aiColor4D___subnset__(HandleRef jarg1, HandleRef jarg2);
	1758
	1759	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___mulnset__")]
	1760	public static extern IntPtr aiColor4D___mulnset__(HandleRef jarg1, float jarg2);
	1761
	1762	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___divnset__")]
	1763	public static extern IntPtr aiColor4D___divnset__(HandleRef jarg1, float jarg2);
	1764
	1765	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___equal__")]
	1766	public static extern bool aiColor4D___equal__(HandleRef jarg1, HandleRef jarg2);
	1767
	1768	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___nequal__")]
	1769	public static extern bool aiColor4D___nequal__(HandleRef jarg1, HandleRef jarg2);
	1770
	1771	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___idx____SWIG_0")]
	1772	public static extern float aiColor4D___idx____SWIG_0(HandleRef jarg1, uint jarg2);
	1773
	1774	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_IsBlack")]
	1775	public static extern bool aiColor4D_IsBlack(HandleRef jarg1);
	1776
	1777	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_r_set")]
	1778	public static extern void aiColor4D_r_set(HandleRef jarg1, float jarg2);
	1779
	1780	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_r_get")]
	1781	public static extern float aiColor4D_r_get(HandleRef jarg1);
	1782
	1783	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_g_set")]
	1784	public static extern void aiColor4D_g_set(HandleRef jarg1, float jarg2);
	1785
	1786	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_g_get")]
	1787	public static extern float aiColor4D_g_get(HandleRef jarg1);
	1788
	1789	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_b_set")]
	1790	public static extern void aiColor4D_b_set(HandleRef jarg1, float jarg2);
	1791
	1792	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_b_get")]
	1793	public static extern float aiColor4D_b_get(HandleRef jarg1);
	1794
	1795	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_a_set")]
	1796	public static extern void aiColor4D_a_set(HandleRef jarg1, float jarg2);
	1797
	1798	[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_a_get")]
	1799	public static extern float aiColor4D_a_get(HandleRef jarg1);
	1800
	1801	[DllImport("Assimp", EntryPoint="CSharp_delete_aiColor4D")]
	1802	public static extern void delete_aiColor4D(HandleRef jarg1);
	1803
	1804	[DllImport("Assimp", EntryPoint="CSharp_new_aiVector3D__SWIG_0")]
	1805	public static extern IntPtr new_aiVector3D__SWIG_0();
	1806
	1807	[DllImport("Assimp", EntryPoint="CSharp_new_aiVector3D__SWIG_1")]
	1808	public static extern IntPtr new_aiVector3D__SWIG_1(float jarg1, float jarg2, float jarg3);
	1809
	1810	[DllImport("Assimp", EntryPoint="CSharp_new_aiVector3D__SWIG_2")]
	1811	public static extern IntPtr new_aiVector3D__SWIG_2(float jarg1);
	1812
	1813	[DllImport("Assimp", EntryPoint="CSharp_new_aiVector3D__SWIG_3")]
	1814	public static extern IntPtr new_aiVector3D__SWIG_3(HandleRef jarg1);
	1815
	1816	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___addnset__")]
	1817	public static extern IntPtr aiVector3D___addnset__(HandleRef jarg1, HandleRef jarg2);
	1818
	1819	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___subnset__")]
	1820	public static extern IntPtr aiVector3D___subnset__(HandleRef jarg1, HandleRef jarg2);
	1821
	1822	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___mulnset____SWIG_0")]
	1823	public static extern IntPtr aiVector3D___mulnset____SWIG_0(HandleRef jarg1, float jarg2);
	1824
	1825	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___divnset__")]
	1826	public static extern IntPtr aiVector3D___divnset__(HandleRef jarg1, float jarg2);
	1827
	1828	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___mulnset____SWIG_1")]
	1829	public static extern IntPtr aiVector3D___mulnset____SWIG_1(HandleRef jarg1, HandleRef jarg2);
	1830
	1831	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___mulnset____SWIG_2")]
	1832	public static extern IntPtr aiVector3D___mulnset____SWIG_2(HandleRef jarg1, HandleRef jarg2);
	1833
	1834	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___idx____SWIG_0")]
	1835	public static extern float aiVector3D___idx____SWIG_0(HandleRef jarg1, uint jarg2);
	1836
	1837	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___equal__")]
	1838	public static extern bool aiVector3D___equal__(HandleRef jarg1, HandleRef jarg2);
	1839
	1840	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___nequal__")]
	1841	public static extern bool aiVector3D___nequal__(HandleRef jarg1, HandleRef jarg2);
	1842
	1843	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_Set")]
	1844	public static extern void aiVector3D_Set(HandleRef jarg1, float jarg2, float jarg3, float jarg4);
	1845
	1846	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_SquareLength")]
	1847	public static extern float aiVector3D_SquareLength(HandleRef jarg1);
	1848
	1849	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_Length")]
	1850	public static extern float aiVector3D_Length(HandleRef jarg1);
	1851
	1852	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_Normalize")]
	1853	public static extern IntPtr aiVector3D_Normalize(HandleRef jarg1);
	1854
	1855	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_SymMul")]
	1856	public static extern IntPtr aiVector3D_SymMul(HandleRef jarg1, HandleRef jarg2);
	1857
	1858	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_x_set")]
	1859	public static extern void aiVector3D_x_set(HandleRef jarg1, float jarg2);
	1860
	1861	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_x_get")]
	1862	public static extern float aiVector3D_x_get(HandleRef jarg1);
	1863
	1864	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_y_set")]
	1865	public static extern void aiVector3D_y_set(HandleRef jarg1, float jarg2);
	1866
	1867	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_y_get")]
	1868	public static extern float aiVector3D_y_get(HandleRef jarg1);
	1869
	1870	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_z_set")]
	1871	public static extern void aiVector3D_z_set(HandleRef jarg1, float jarg2);
	1872
	1873	[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_z_get")]
	1874	public static extern float aiVector3D_z_get(HandleRef jarg1);
	1875
	1876	[DllImport("Assimp", EntryPoint="CSharp_delete_aiVector3D")]
	1877	public static extern void delete_aiVector3D(HandleRef jarg1);
	1878
586	1879	[DllImport("Assimp", EntryPoint="CSharp_new_aiVector2D__SWIG_0")]
587	1880	public static extern IntPtr new_aiVector2D__SWIG_0();
588	1881

649	1942	[DllImport("Assimp", EntryPoint="CSharp_delete_aiVector2D")]
650	1943	public static extern void delete_aiVector2D(HandleRef jarg1);
651	1944
652		[DllImport("Assimp", EntryPoint="CSharp___add__")]
653		public static extern IntPtr __add__(HandleRef jarg1, HandleRef jarg2);
654
655		[DllImport("Assimp", EntryPoint="CSharp___sub____SWIG_0")]
656		public static extern IntPtr __sub____SWIG_0(HandleRef jarg1, HandleRef jarg2);
657
658		[DllImport("Assimp", EntryPoint="CSharp___mul____SWIG_0")]
659		public static extern float __mul____SWIG_0(HandleRef jarg1, HandleRef jarg2);
660
661		[DllImport("Assimp", EntryPoint="CSharp___mul____SWIG_1")]
662		public static extern IntPtr __mul____SWIG_1(float jarg1, HandleRef jarg2);
663
664		[DllImport("Assimp", EntryPoint="CSharp___mul____SWIG_2")]
665		public static extern IntPtr __mul____SWIG_2(HandleRef jarg1, float jarg2);
666
667		[DllImport("Assimp", EntryPoint="CSharp___div____SWIG_0")]
668		public static extern IntPtr __div____SWIG_0(HandleRef jarg1, float jarg2);
669
670		[DllImport("Assimp", EntryPoint="CSharp___div____SWIG_1")]
671		public static extern IntPtr __div____SWIG_1(HandleRef jarg1, HandleRef jarg2);
672
673		[DllImport("Assimp", EntryPoint="CSharp___sub____SWIG_1")]
674		public static extern IntPtr __sub____SWIG_1(HandleRef jarg1);
675
676		[DllImport("Assimp", EntryPoint="CSharp_new_aiVector3D__SWIG_0")]
677		public static extern IntPtr new_aiVector3D__SWIG_0();
678
679		[DllImport("Assimp", EntryPoint="CSharp_new_aiVector3D__SWIG_1")]
680		public static extern IntPtr new_aiVector3D__SWIG_1(float jarg1, float jarg2, float jarg3);
681
682		[DllImport("Assimp", EntryPoint="CSharp_new_aiVector3D__SWIG_2")]
683		public static extern IntPtr new_aiVector3D__SWIG_2(float jarg1);
684
685		[DllImport("Assimp", EntryPoint="CSharp_new_aiVector3D__SWIG_3")]
686		public static extern IntPtr new_aiVector3D__SWIG_3(HandleRef jarg1);
687
688		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___addnset__")]
689		public static extern IntPtr aiVector3D___addnset__(HandleRef jarg1, HandleRef jarg2);
690
691		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___subnset__")]
692		public static extern IntPtr aiVector3D___subnset__(HandleRef jarg1, HandleRef jarg2);
693
694		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___mulnset____SWIG_0")]
695		public static extern IntPtr aiVector3D___mulnset____SWIG_0(HandleRef jarg1, float jarg2);
696
697		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___divnset__")]
698		public static extern IntPtr aiVector3D___divnset__(HandleRef jarg1, float jarg2);
699
700		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___mulnset____SWIG_1")]
701		public static extern IntPtr aiVector3D___mulnset____SWIG_1(HandleRef jarg1, HandleRef jarg2);
702
703		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___mulnset____SWIG_2")]
704		public static extern IntPtr aiVector3D___mulnset____SWIG_2(HandleRef jarg1, HandleRef jarg2);
705
706		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___idx____SWIG_0")]
707		public static extern float aiVector3D___idx____SWIG_0(HandleRef jarg1, uint jarg2);
708
709		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___equal__")]
710		public static extern bool aiVector3D___equal__(HandleRef jarg1, HandleRef jarg2);
711
712		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D___nequal__")]
713		public static extern bool aiVector3D___nequal__(HandleRef jarg1, HandleRef jarg2);
714
715		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_Set")]
716		public static extern void aiVector3D_Set(HandleRef jarg1, float jarg2, float jarg3, float jarg4);
717
718		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_SquareLength")]
719		public static extern float aiVector3D_SquareLength(HandleRef jarg1);
720
721		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_Length")]
722		public static extern float aiVector3D_Length(HandleRef jarg1);
723
724		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_Normalize")]
725		public static extern IntPtr aiVector3D_Normalize(HandleRef jarg1);
726
727		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_SymMul")]
728		public static extern IntPtr aiVector3D_SymMul(HandleRef jarg1, HandleRef jarg2);
729
730		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_x_set")]
731		public static extern void aiVector3D_x_set(HandleRef jarg1, float jarg2);
732
733		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_x_get")]
734		public static extern float aiVector3D_x_get(HandleRef jarg1);
735
736		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_y_set")]
737		public static extern void aiVector3D_y_set(HandleRef jarg1, float jarg2);
738
739		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_y_get")]
740		public static extern float aiVector3D_y_get(HandleRef jarg1);
741
742		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_z_set")]
743		public static extern void aiVector3D_z_set(HandleRef jarg1, float jarg2);
744
745		[DllImport("Assimp", EntryPoint="CSharp_aiVector3D_z_get")]
746		public static extern float aiVector3D_z_get(HandleRef jarg1);
747
748		[DllImport("Assimp", EntryPoint="CSharp_delete_aiVector3D")]
749		public static extern void delete_aiVector3D(HandleRef jarg1);
750
751		[DllImport("Assimp", EntryPoint="CSharp_new_aiColor4D__SWIG_0")]
752		public static extern IntPtr new_aiColor4D__SWIG_0();
753
754		[DllImport("Assimp", EntryPoint="CSharp_new_aiColor4D__SWIG_1")]
755		public static extern IntPtr new_aiColor4D__SWIG_1(float jarg1, float jarg2, float jarg3, float jarg4);
756
757		[DllImport("Assimp", EntryPoint="CSharp_new_aiColor4D__SWIG_2")]
758		public static extern IntPtr new_aiColor4D__SWIG_2(float jarg1);
759
760		[DllImport("Assimp", EntryPoint="CSharp_new_aiColor4D__SWIG_3")]
761		public static extern IntPtr new_aiColor4D__SWIG_3(HandleRef jarg1);
762
763		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___addnset__")]
764		public static extern IntPtr aiColor4D___addnset__(HandleRef jarg1, HandleRef jarg2);
765
766		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___subnset__")]
767		public static extern IntPtr aiColor4D___subnset__(HandleRef jarg1, HandleRef jarg2);
768
769		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___mulnset__")]
770		public static extern IntPtr aiColor4D___mulnset__(HandleRef jarg1, float jarg2);
771
772		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___divnset__")]
773		public static extern IntPtr aiColor4D___divnset__(HandleRef jarg1, float jarg2);
774
775		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___equal__")]
776		public static extern bool aiColor4D___equal__(HandleRef jarg1, HandleRef jarg2);
777
778		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___nequal__")]
779		public static extern bool aiColor4D___nequal__(HandleRef jarg1, HandleRef jarg2);
780
781		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D___idx____SWIG_0")]
782		public static extern float aiColor4D___idx____SWIG_0(HandleRef jarg1, uint jarg2);
783
784		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_IsBlack")]
785		public static extern bool aiColor4D_IsBlack(HandleRef jarg1);
786
787		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_r_set")]
788		public static extern void aiColor4D_r_set(HandleRef jarg1, float jarg2);
789
790		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_r_get")]
791		public static extern float aiColor4D_r_get(HandleRef jarg1);
792
793		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_g_set")]
794		public static extern void aiColor4D_g_set(HandleRef jarg1, float jarg2);
795
796		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_g_get")]
797		public static extern float aiColor4D_g_get(HandleRef jarg1);
798
799		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_b_set")]
800		public static extern void aiColor4D_b_set(HandleRef jarg1, float jarg2);
801
802		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_b_get")]
803		public static extern float aiColor4D_b_get(HandleRef jarg1);
804
805		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_a_set")]
806		public static extern void aiColor4D_a_set(HandleRef jarg1, float jarg2);
807
808		[DllImport("Assimp", EntryPoint="CSharp_aiColor4D_a_get")]
809		public static extern float aiColor4D_a_get(HandleRef jarg1);
810
811		[DllImport("Assimp", EntryPoint="CSharp_delete_aiColor4D")]
812		public static extern void delete_aiColor4D(HandleRef jarg1);
	1945	[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_0")]
	1946	public static extern IntPtr new_aiQuaternion__SWIG_0();
	1947
	1948	[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_1")]
	1949	public static extern IntPtr new_aiQuaternion__SWIG_1(float jarg1, float jarg2, float jarg3, float jarg4);
	1950
	1951	[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_2")]
	1952	public static extern IntPtr new_aiQuaternion__SWIG_2(HandleRef jarg1);
	1953
	1954	[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_3")]
	1955	public static extern IntPtr new_aiQuaternion__SWIG_3(float jarg1, float jarg2, float jarg3);
	1956
	1957	[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_4")]
	1958	public static extern IntPtr new_aiQuaternion__SWIG_4(HandleRef jarg1, float jarg2);
	1959
	1960	[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_5")]
	1961	public static extern IntPtr new_aiQuaternion__SWIG_5(HandleRef jarg1);
	1962
	1963	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_GetMatrix")]
	1964	public static extern IntPtr aiQuaternion_GetMatrix(HandleRef jarg1);
	1965
	1966	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion___equal__")]
	1967	public static extern bool aiQuaternion___equal__(HandleRef jarg1, HandleRef jarg2);
	1968
	1969	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion___nequal__")]
	1970	public static extern bool aiQuaternion___nequal__(HandleRef jarg1, HandleRef jarg2);
	1971
	1972	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_Normalize")]
	1973	public static extern IntPtr aiQuaternion_Normalize(HandleRef jarg1);
	1974
	1975	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_Conjugate")]
	1976	public static extern IntPtr aiQuaternion_Conjugate(HandleRef jarg1);
	1977
	1978	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_Rotate")]
	1979	public static extern IntPtr aiQuaternion_Rotate(HandleRef jarg1, HandleRef jarg2);
	1980
	1981	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion___mul__")]
	1982	public static extern IntPtr aiQuaternion___mul__(HandleRef jarg1, HandleRef jarg2);
	1983
	1984	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_Interpolate")]
	1985	public static extern void aiQuaternion_Interpolate(HandleRef jarg1, HandleRef jarg2, HandleRef jarg3, float jarg4);
	1986
	1987	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_w_set")]
	1988	public static extern void aiQuaternion_w_set(HandleRef jarg1, float jarg2);
	1989
	1990	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_w_get")]
	1991	public static extern float aiQuaternion_w_get(HandleRef jarg1);
	1992
	1993	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_x_set")]
	1994	public static extern void aiQuaternion_x_set(HandleRef jarg1, float jarg2);
	1995
	1996	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_x_get")]
	1997	public static extern float aiQuaternion_x_get(HandleRef jarg1);
	1998
	1999	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_y_set")]
	2000	public static extern void aiQuaternion_y_set(HandleRef jarg1, float jarg2);
	2001
	2002	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_y_get")]
	2003	public static extern float aiQuaternion_y_get(HandleRef jarg1);
	2004
	2005	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_z_set")]
	2006	public static extern void aiQuaternion_z_set(HandleRef jarg1, float jarg2);
	2007
	2008	[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_z_get")]
	2009	public static extern float aiQuaternion_z_get(HandleRef jarg1);
	2010
	2011	[DllImport("Assimp", EntryPoint="CSharp_delete_aiQuaternion")]
	2012	public static extern void delete_aiQuaternion(HandleRef jarg1);
813	2013
814	2014	[DllImport("Assimp", EntryPoint="CSharp_new_aiMatrix3x3__SWIG_0")]
815	2015	public static extern IntPtr new_aiMatrix3x3__SWIG_0();

817	2017	[DllImport("Assimp", EntryPoint="CSharp_new_aiMatrix3x3__SWIG_1")]
818	2018	public static extern IntPtr new_aiMatrix3x3__SWIG_1(float jarg1, float jarg2, float jarg3, float jarg4, float jarg5, float jarg6, float jarg7, float jarg8, float jarg9);
819	2019
	2020	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix3x3___mulnset__")]
	2021	public static extern IntPtr aiMatrix3x3___mulnset__(HandleRef jarg1, HandleRef jarg2);
	2022
	2023	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix3x3___mul__")]
	2024	public static extern IntPtr aiMatrix3x3___mul__(HandleRef jarg1, HandleRef jarg2);
	2025
	2026	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix3x3___idx____SWIG_0")]
	2027	public static extern IntPtr aiMatrix3x3___idx____SWIG_0(HandleRef jarg1, uint jarg2);
	2028
	2029	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix3x3___equal__")]
	2030	public static extern bool aiMatrix3x3___equal__(HandleRef jarg1, HandleRef jarg2);
	2031
	2032	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix3x3___nequal__")]
	2033	public static extern bool aiMatrix3x3___nequal__(HandleRef jarg1, HandleRef jarg2);
	2034
820	2035	[DllImport("Assimp", EntryPoint="CSharp_new_aiMatrix3x3__SWIG_2")]
821	2036	public static extern IntPtr new_aiMatrix3x3__SWIG_2(HandleRef jarg1);
822	2037

907	2122	[DllImport("Assimp", EntryPoint="CSharp_new_aiMatrix4x4__SWIG_2")]
908	2123	public static extern IntPtr new_aiMatrix4x4__SWIG_2(HandleRef jarg1);
909	2124
	2125	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix4x4___idx____SWIG_0")]
	2126	public static extern IntPtr aiMatrix4x4___idx____SWIG_0(HandleRef jarg1, uint jarg2);
	2127
	2128	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix4x4___equal__")]
	2129	public static extern bool aiMatrix4x4___equal__(HandleRef jarg1, HandleRef jarg2);
	2130
	2131	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix4x4___nequal__")]
	2132	public static extern bool aiMatrix4x4___nequal__(HandleRef jarg1, HandleRef jarg2);
	2133
	2134	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix4x4___mulnset__")]
	2135	public static extern IntPtr aiMatrix4x4___mulnset__(HandleRef jarg1, HandleRef jarg2);
	2136
	2137	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix4x4___mul__")]
	2138	public static extern IntPtr aiMatrix4x4___mul__(HandleRef jarg1, HandleRef jarg2);
	2139
910	2140	[DllImport("Assimp", EntryPoint="CSharp_aiMatrix4x4_Transpose")]
911	2141	public static extern IntPtr aiMatrix4x4_Transpose(HandleRef jarg1);
912	2142

1050	2280
1051	2281	[DllImport("Assimp", EntryPoint="CSharp_delete_aiMatrix4x4")]
1052	2282	public static extern void delete_aiMatrix4x4(HandleRef jarg1);
1053
1054		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mName_set")]
1055		public static extern void aiCamera_mName_set(HandleRef jarg1, HandleRef jarg2);
1056
1057		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mName_get")]
1058		public static extern IntPtr aiCamera_mName_get(HandleRef jarg1);
1059
1060		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mPosition_set")]
1061		public static extern void aiCamera_mPosition_set(HandleRef jarg1, HandleRef jarg2);
1062
1063		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mPosition_get")]
1064		public static extern IntPtr aiCamera_mPosition_get(HandleRef jarg1);
1065
1066		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mUp_set")]
1067		public static extern void aiCamera_mUp_set(HandleRef jarg1, HandleRef jarg2);
1068
1069		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mUp_get")]
1070		public static extern IntPtr aiCamera_mUp_get(HandleRef jarg1);
1071
1072		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mLookAt_set")]
1073		public static extern void aiCamera_mLookAt_set(HandleRef jarg1, HandleRef jarg2);
1074
1075		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mLookAt_get")]
1076		public static extern IntPtr aiCamera_mLookAt_get(HandleRef jarg1);
1077
1078		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mHorizontalFOV_set")]
1079		public static extern void aiCamera_mHorizontalFOV_set(HandleRef jarg1, float jarg2);
1080
1081		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mHorizontalFOV_get")]
1082		public static extern float aiCamera_mHorizontalFOV_get(HandleRef jarg1);
1083
1084		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mClipPlaneNear_set")]
1085		public static extern void aiCamera_mClipPlaneNear_set(HandleRef jarg1, float jarg2);
1086
1087		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mClipPlaneNear_get")]
1088		public static extern float aiCamera_mClipPlaneNear_get(HandleRef jarg1);
1089
1090		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mClipPlaneFar_set")]
1091		public static extern void aiCamera_mClipPlaneFar_set(HandleRef jarg1, float jarg2);
1092
1093		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mClipPlaneFar_get")]
1094		public static extern float aiCamera_mClipPlaneFar_get(HandleRef jarg1);
1095
1096		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mAspect_set")]
1097		public static extern void aiCamera_mAspect_set(HandleRef jarg1, float jarg2);
1098
1099		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_mAspect_get")]
1100		public static extern float aiCamera_mAspect_get(HandleRef jarg1);
1101
1102		[DllImport("Assimp", EntryPoint="CSharp_new_aiCamera")]
1103		public static extern IntPtr new_aiCamera();
1104
1105		[DllImport("Assimp", EntryPoint="CSharp_aiCamera_GetCameraMatrix")]
1106		public static extern void aiCamera_GetCameraMatrix(HandleRef jarg1, HandleRef jarg2);
1107
1108		[DllImport("Assimp", EntryPoint="CSharp_delete_aiCamera")]
1109		public static extern void delete_aiCamera(HandleRef jarg1);
1110
1111		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mName_set")]
1112		public static extern void aiLight_mName_set(HandleRef jarg1, HandleRef jarg2);
1113
1114		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mName_get")]
1115		public static extern IntPtr aiLight_mName_get(HandleRef jarg1);
1116
1117		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mType_set")]
1118		public static extern void aiLight_mType_set(HandleRef jarg1, int jarg2);
1119
1120		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mType_get")]
1121		public static extern int aiLight_mType_get(HandleRef jarg1);
1122
1123		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mPosition_set")]
1124		public static extern void aiLight_mPosition_set(HandleRef jarg1, HandleRef jarg2);
1125
1126		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mPosition_get")]
1127		public static extern IntPtr aiLight_mPosition_get(HandleRef jarg1);
1128
1129		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mDirection_set")]
1130		public static extern void aiLight_mDirection_set(HandleRef jarg1, HandleRef jarg2);
1131
1132		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mDirection_get")]
1133		public static extern IntPtr aiLight_mDirection_get(HandleRef jarg1);
1134
1135		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationConstant_set")]
1136		public static extern void aiLight_mAttenuationConstant_set(HandleRef jarg1, float jarg2);
1137
1138		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationConstant_get")]
1139		public static extern float aiLight_mAttenuationConstant_get(HandleRef jarg1);
1140
1141		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationLinear_set")]
1142		public static extern void aiLight_mAttenuationLinear_set(HandleRef jarg1, float jarg2);
1143
1144		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationLinear_get")]
1145		public static extern float aiLight_mAttenuationLinear_get(HandleRef jarg1);
1146
1147		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationQuadratic_set")]
1148		public static extern void aiLight_mAttenuationQuadratic_set(HandleRef jarg1, float jarg2);
1149
1150		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAttenuationQuadratic_get")]
1151		public static extern float aiLight_mAttenuationQuadratic_get(HandleRef jarg1);
1152
1153		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorDiffuse_set")]
1154		public static extern void aiLight_mColorDiffuse_set(HandleRef jarg1, HandleRef jarg2);
1155
1156		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorDiffuse_get")]
1157		public static extern IntPtr aiLight_mColorDiffuse_get(HandleRef jarg1);
1158
1159		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorSpecular_set")]
1160		public static extern void aiLight_mColorSpecular_set(HandleRef jarg1, HandleRef jarg2);
1161
1162		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorSpecular_get")]
1163		public static extern IntPtr aiLight_mColorSpecular_get(HandleRef jarg1);
1164
1165		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorAmbient_set")]
1166		public static extern void aiLight_mColorAmbient_set(HandleRef jarg1, HandleRef jarg2);
1167
1168		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mColorAmbient_get")]
1169		public static extern IntPtr aiLight_mColorAmbient_get(HandleRef jarg1);
1170
1171		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAngleInnerCone_set")]
1172		public static extern void aiLight_mAngleInnerCone_set(HandleRef jarg1, float jarg2);
1173
1174		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAngleInnerCone_get")]
1175		public static extern float aiLight_mAngleInnerCone_get(HandleRef jarg1);
1176
1177		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAngleOuterCone_set")]
1178		public static extern void aiLight_mAngleOuterCone_set(HandleRef jarg1, float jarg2);
1179
1180		[DllImport("Assimp", EntryPoint="CSharp_aiLight_mAngleOuterCone_get")]
1181		public static extern float aiLight_mAngleOuterCone_get(HandleRef jarg1);
1182
1183		[DllImport("Assimp", EntryPoint="CSharp_new_aiLight")]
1184		public static extern IntPtr new_aiLight();
1185
1186		[DllImport("Assimp", EntryPoint="CSharp_delete_aiLight")]
1187		public static extern void delete_aiLight(HandleRef jarg1);
1188
1189		[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey_mTime_set")]
1190		public static extern void aiVectorKey_mTime_set(HandleRef jarg1, double jarg2);
1191
1192		[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey_mTime_get")]
1193		public static extern double aiVectorKey_mTime_get(HandleRef jarg1);
1194
1195		[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey_mValue_set")]
1196		public static extern void aiVectorKey_mValue_set(HandleRef jarg1, HandleRef jarg2);
1197
1198		[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey_mValue_get")]
1199		public static extern IntPtr aiVectorKey_mValue_get(HandleRef jarg1);
1200
1201		[DllImport("Assimp", EntryPoint="CSharp_new_aiVectorKey__SWIG_0")]
1202		public static extern IntPtr new_aiVectorKey__SWIG_0();
1203
1204		[DllImport("Assimp", EntryPoint="CSharp_new_aiVectorKey__SWIG_1")]
1205		public static extern IntPtr new_aiVectorKey__SWIG_1(double jarg1, HandleRef jarg2);
1206
1207		[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey___equal__")]
1208		public static extern bool aiVectorKey___equal__(HandleRef jarg1, HandleRef jarg2);
1209
1210		[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey___nequal__")]
1211		public static extern bool aiVectorKey___nequal__(HandleRef jarg1, HandleRef jarg2);
1212
1213		[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey___smaller__")]
1214		public static extern bool aiVectorKey___smaller__(HandleRef jarg1, HandleRef jarg2);
1215
1216		[DllImport("Assimp", EntryPoint="CSharp_aiVectorKey___greater__")]
1217		public static extern bool aiVectorKey___greater__(HandleRef jarg1, HandleRef jarg2);
1218
1219		[DllImport("Assimp", EntryPoint="CSharp_delete_aiVectorKey")]
1220		public static extern void delete_aiVectorKey(HandleRef jarg1);
1221
1222		[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey_mTime_set")]
1223		public static extern void aiQuatKey_mTime_set(HandleRef jarg1, double jarg2);
1224
1225		[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey_mTime_get")]
1226		public static extern double aiQuatKey_mTime_get(HandleRef jarg1);
1227
1228		[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey_mValue_set")]
1229		public static extern void aiQuatKey_mValue_set(HandleRef jarg1, HandleRef jarg2);
1230
1231		[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey_mValue_get")]
1232		public static extern IntPtr aiQuatKey_mValue_get(HandleRef jarg1);
1233
1234		[DllImport("Assimp", EntryPoint="CSharp_new_aiQuatKey__SWIG_0")]
1235		public static extern IntPtr new_aiQuatKey__SWIG_0();
1236
1237		[DllImport("Assimp", EntryPoint="CSharp_new_aiQuatKey__SWIG_1")]
1238		public static extern IntPtr new_aiQuatKey__SWIG_1(double jarg1, HandleRef jarg2);
1239
1240		[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey___equal__")]
1241		public static extern bool aiQuatKey___equal__(HandleRef jarg1, HandleRef jarg2);
1242
1243		[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey___nequal__")]
1244		public static extern bool aiQuatKey___nequal__(HandleRef jarg1, HandleRef jarg2);
1245
1246		[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey___smaller__")]
1247		public static extern bool aiQuatKey___smaller__(HandleRef jarg1, HandleRef jarg2);
1248
1249		[DllImport("Assimp", EntryPoint="CSharp_aiQuatKey___greater__")]
1250		public static extern bool aiQuatKey___greater__(HandleRef jarg1, HandleRef jarg2);
1251
1252		[DllImport("Assimp", EntryPoint="CSharp_delete_aiQuatKey")]
1253		public static extern void delete_aiQuatKey(HandleRef jarg1);
1254
1255		[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey_mTime_set")]
1256		public static extern void aiMeshKey_mTime_set(HandleRef jarg1, double jarg2);
1257
1258		[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey_mTime_get")]
1259		public static extern double aiMeshKey_mTime_get(HandleRef jarg1);
1260
1261		[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey_mValue_set")]
1262		public static extern void aiMeshKey_mValue_set(HandleRef jarg1, uint jarg2);
1263
1264		[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey_mValue_get")]
1265		public static extern uint aiMeshKey_mValue_get(HandleRef jarg1);
1266
1267		[DllImport("Assimp", EntryPoint="CSharp_new_aiMeshKey__SWIG_0")]
1268		public static extern IntPtr new_aiMeshKey__SWIG_0();
1269
1270		[DllImport("Assimp", EntryPoint="CSharp_new_aiMeshKey__SWIG_1")]
1271		public static extern IntPtr new_aiMeshKey__SWIG_1(double jarg1, uint jarg2);
1272
1273		[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey___equal__")]
1274		public static extern bool aiMeshKey___equal__(HandleRef jarg1, HandleRef jarg2);
1275
1276		[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey___nequal__")]
1277		public static extern bool aiMeshKey___nequal__(HandleRef jarg1, HandleRef jarg2);
1278
1279		[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey___smaller__")]
1280		public static extern bool aiMeshKey___smaller__(HandleRef jarg1, HandleRef jarg2);
1281
1282		[DllImport("Assimp", EntryPoint="CSharp_aiMeshKey___greater__")]
1283		public static extern bool aiMeshKey___greater__(HandleRef jarg1, HandleRef jarg2);
1284
1285		[DllImport("Assimp", EntryPoint="CSharp_delete_aiMeshKey")]
1286		public static extern void delete_aiMeshKey(HandleRef jarg1);
1287
1288		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNodeName_set")]
1289		public static extern void aiNodeAnim_mNodeName_set(HandleRef jarg1, HandleRef jarg2);
1290
1291		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNodeName_get")]
1292		public static extern IntPtr aiNodeAnim_mNodeName_get(HandleRef jarg1);
1293
1294		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumPositionKeys_set")]
1295		public static extern void aiNodeAnim_mNumPositionKeys_set(HandleRef jarg1, uint jarg2);
1296
1297		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumPositionKeys_get")]
1298		public static extern uint aiNodeAnim_mNumPositionKeys_get(HandleRef jarg1);
1299
1300		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumRotationKeys_set")]
1301		public static extern void aiNodeAnim_mNumRotationKeys_set(HandleRef jarg1, uint jarg2);
1302
1303		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumRotationKeys_get")]
1304		public static extern uint aiNodeAnim_mNumRotationKeys_get(HandleRef jarg1);
1305
1306		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumScalingKeys_set")]
1307		public static extern void aiNodeAnim_mNumScalingKeys_set(HandleRef jarg1, uint jarg2);
1308
1309		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mNumScalingKeys_get")]
1310		public static extern uint aiNodeAnim_mNumScalingKeys_get(HandleRef jarg1);
1311
1312		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mPreState_set")]
1313		public static extern void aiNodeAnim_mPreState_set(HandleRef jarg1, int jarg2);
1314
1315		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mPreState_get")]
1316		public static extern int aiNodeAnim_mPreState_get(HandleRef jarg1);
1317
1318		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mPostState_set")]
1319		public static extern void aiNodeAnim_mPostState_set(HandleRef jarg1, int jarg2);
1320
1321		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_mPostState_get")]
1322		public static extern int aiNodeAnim_mPostState_get(HandleRef jarg1);
1323
1324		[DllImport("Assimp", EntryPoint="CSharp_new_aiNodeAnim")]
1325		public static extern IntPtr new_aiNodeAnim();
1326
1327		[DllImport("Assimp", EntryPoint="CSharp_delete_aiNodeAnim")]
1328		public static extern void delete_aiNodeAnim(HandleRef jarg1);
1329
1330		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_GetmPositionKeys")]
1331		public static extern IntPtr aiNodeAnim_GetmPositionKeys(HandleRef jarg1);
1332
1333		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_GetmRotationKeys")]
1334		public static extern IntPtr aiNodeAnim_GetmRotationKeys(HandleRef jarg1);
1335
1336		[DllImport("Assimp", EntryPoint="CSharp_aiNodeAnim_GetmScalingKeys")]
1337		public static extern IntPtr aiNodeAnim_GetmScalingKeys(HandleRef jarg1);
1338
1339		[DllImport("Assimp", EntryPoint="CSharp_aiMeshAnim_mName_set")]
1340		public static extern void aiMeshAnim_mName_set(HandleRef jarg1, HandleRef jarg2);
1341
1342		[DllImport("Assimp", EntryPoint="CSharp_aiMeshAnim_mName_get")]
1343		public static extern IntPtr aiMeshAnim_mName_get(HandleRef jarg1);
1344
1345		[DllImport("Assimp", EntryPoint="CSharp_aiMeshAnim_mNumKeys_set")]
1346		public static extern void aiMeshAnim_mNumKeys_set(HandleRef jarg1, uint jarg2);
1347
1348		[DllImport("Assimp", EntryPoint="CSharp_aiMeshAnim_mNumKeys_get")]
1349		public static extern uint aiMeshAnim_mNumKeys_get(HandleRef jarg1);
1350
1351		[DllImport("Assimp", EntryPoint="CSharp_new_aiMeshAnim")]
1352		public static extern IntPtr new_aiMeshAnim();
1353
1354		[DllImport("Assimp", EntryPoint="CSharp_delete_aiMeshAnim")]
1355		public static extern void delete_aiMeshAnim(HandleRef jarg1);
1356
1357		[DllImport("Assimp", EntryPoint="CSharp_aiMeshAnim_GetmKeys")]
1358		public static extern IntPtr aiMeshAnim_GetmKeys(HandleRef jarg1);
1359
1360		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mName_set")]
1361		public static extern void aiAnimation_mName_set(HandleRef jarg1, HandleRef jarg2);
1362
1363		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mName_get")]
1364		public static extern IntPtr aiAnimation_mName_get(HandleRef jarg1);
1365
1366		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mDuration_set")]
1367		public static extern void aiAnimation_mDuration_set(HandleRef jarg1, double jarg2);
1368
1369		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mDuration_get")]
1370		public static extern double aiAnimation_mDuration_get(HandleRef jarg1);
1371
1372		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mTicksPerSecond_set")]
1373		public static extern void aiAnimation_mTicksPerSecond_set(HandleRef jarg1, double jarg2);
1374
1375		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mTicksPerSecond_get")]
1376		public static extern double aiAnimation_mTicksPerSecond_get(HandleRef jarg1);
1377
1378		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mNumChannels_set")]
1379		public static extern void aiAnimation_mNumChannels_set(HandleRef jarg1, uint jarg2);
1380
1381		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mNumChannels_get")]
1382		public static extern uint aiAnimation_mNumChannels_get(HandleRef jarg1);
1383
1384		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mNumMeshChannels_set")]
1385		public static extern void aiAnimation_mNumMeshChannels_set(HandleRef jarg1, uint jarg2);
1386
1387		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_mNumMeshChannels_get")]
1388		public static extern uint aiAnimation_mNumMeshChannels_get(HandleRef jarg1);
1389
1390		[DllImport("Assimp", EntryPoint="CSharp_new_aiAnimation")]
1391		public static extern IntPtr new_aiAnimation();
1392
1393		[DllImport("Assimp", EntryPoint="CSharp_delete_aiAnimation")]
1394		public static extern void delete_aiAnimation(HandleRef jarg1);
1395
1396		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_GetmChannels")]
1397		public static extern IntPtr aiAnimation_GetmChannels(HandleRef jarg1);
1398
1399		[DllImport("Assimp", EntryPoint="CSharp_aiAnimation_GetmMeshChannels")]
1400		public static extern IntPtr aiAnimation_GetmMeshChannels(HandleRef jarg1);
1401
1402		[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_FACE_INDICES_get")]
1403		public static extern int AI_MAX_FACE_INDICES_get();
1404
1405		[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_BONE_WEIGHTS_get")]
1406		public static extern int AI_MAX_BONE_WEIGHTS_get();
1407
1408		[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_VERTICES_get")]
1409		public static extern int AI_MAX_VERTICES_get();
1410
1411		[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_FACES_get")]
1412		public static extern int AI_MAX_FACES_get();
1413
1414		[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_NUMBER_OF_COLOR_SETS_get")]
1415		public static extern int AI_MAX_NUMBER_OF_COLOR_SETS_get();
1416
1417		[DllImport("Assimp", EntryPoint="CSharp_AI_MAX_NUMBER_OF_TEXTURECOORDS_get")]
1418		public static extern int AI_MAX_NUMBER_OF_TEXTURECOORDS_get();
1419
1420		[DllImport("Assimp", EntryPoint="CSharp_aiFace_mNumIndices_set")]
1421		public static extern void aiFace_mNumIndices_set(HandleRef jarg1, uint jarg2);
1422
1423		[DllImport("Assimp", EntryPoint="CSharp_aiFace_mNumIndices_get")]
1424		public static extern uint aiFace_mNumIndices_get(HandleRef jarg1);
1425
1426		[DllImport("Assimp", EntryPoint="CSharp_new_aiFace__SWIG_0")]
1427		public static extern IntPtr new_aiFace__SWIG_0();
1428
1429		[DllImport("Assimp", EntryPoint="CSharp_delete_aiFace")]
1430		public static extern void delete_aiFace(HandleRef jarg1);
1431
1432		[DllImport("Assimp", EntryPoint="CSharp_new_aiFace__SWIG_1")]
1433		public static extern IntPtr new_aiFace__SWIG_1(HandleRef jarg1);
1434
1435		[DllImport("Assimp", EntryPoint="CSharp_aiFace___set__")]
1436		public static extern IntPtr aiFace___set__(HandleRef jarg1, HandleRef jarg2);
1437
1438		[DllImport("Assimp", EntryPoint="CSharp_aiFace___equal__")]
1439		public static extern bool aiFace___equal__(HandleRef jarg1, HandleRef jarg2);
1440
1441		[DllImport("Assimp", EntryPoint="CSharp_aiFace___nequal__")]
1442		public static extern bool aiFace___nequal__(HandleRef jarg1, HandleRef jarg2);
1443
1444		[DllImport("Assimp", EntryPoint="CSharp_aiFace_GetmIndices")]
1445		public static extern IntPtr aiFace_GetmIndices(HandleRef jarg1);
1446
1447		[DllImport("Assimp", EntryPoint="CSharp_aiVertexWeight_mVertexId_set")]
1448		public static extern void aiVertexWeight_mVertexId_set(HandleRef jarg1, uint jarg2);
1449
1450		[DllImport("Assimp", EntryPoint="CSharp_aiVertexWeight_mVertexId_get")]
1451		public static extern uint aiVertexWeight_mVertexId_get(HandleRef jarg1);
1452
1453		[DllImport("Assimp", EntryPoint="CSharp_aiVertexWeight_mWeight_set")]
1454		public static extern void aiVertexWeight_mWeight_set(HandleRef jarg1, float jarg2);
1455
1456		[DllImport("Assimp", EntryPoint="CSharp_aiVertexWeight_mWeight_get")]
1457		public static extern float aiVertexWeight_mWeight_get(HandleRef jarg1);
1458
1459		[DllImport("Assimp", EntryPoint="CSharp_new_aiVertexWeight__SWIG_0")]
1460		public static extern IntPtr new_aiVertexWeight__SWIG_0();
1461
1462		[DllImport("Assimp", EntryPoint="CSharp_new_aiVertexWeight__SWIG_1")]
1463		public static extern IntPtr new_aiVertexWeight__SWIG_1(uint jarg1, float jarg2);
1464
1465		[DllImport("Assimp", EntryPoint="CSharp_delete_aiVertexWeight")]
1466		public static extern void delete_aiVertexWeight(HandleRef jarg1);
1467
1468		[DllImport("Assimp", EntryPoint="CSharp_aiBone_mName_set")]
1469		public static extern void aiBone_mName_set(HandleRef jarg1, HandleRef jarg2);
1470
1471		[DllImport("Assimp", EntryPoint="CSharp_aiBone_mName_get")]
1472		public static extern IntPtr aiBone_mName_get(HandleRef jarg1);
1473
1474		[DllImport("Assimp", EntryPoint="CSharp_aiBone_mNumWeights_set")]
1475		public static extern void aiBone_mNumWeights_set(HandleRef jarg1, uint jarg2);
1476
1477		[DllImport("Assimp", EntryPoint="CSharp_aiBone_mNumWeights_get")]
1478		public static extern uint aiBone_mNumWeights_get(HandleRef jarg1);
1479
1480		[DllImport("Assimp", EntryPoint="CSharp_aiBone_mOffsetMatrix_set")]
1481		public static extern void aiBone_mOffsetMatrix_set(HandleRef jarg1, HandleRef jarg2);
1482
1483		[DllImport("Assimp", EntryPoint="CSharp_aiBone_mOffsetMatrix_get")]
1484		public static extern IntPtr aiBone_mOffsetMatrix_get(HandleRef jarg1);
1485
1486		[DllImport("Assimp", EntryPoint="CSharp_new_aiBone__SWIG_0")]
1487		public static extern IntPtr new_aiBone__SWIG_0();
1488
1489		[DllImport("Assimp", EntryPoint="CSharp_new_aiBone__SWIG_1")]
1490		public static extern IntPtr new_aiBone__SWIG_1(HandleRef jarg1);
1491
1492		[DllImport("Assimp", EntryPoint="CSharp_delete_aiBone")]
1493		public static extern void delete_aiBone(HandleRef jarg1);
1494
1495		[DllImport("Assimp", EntryPoint="CSharp_aiBone_GetmWeights")]
1496		public static extern IntPtr aiBone_GetmWeights(HandleRef jarg1);
1497
1498		[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_mBitangents_set")]
1499		public static extern void aiAnimMesh_mBitangents_set(HandleRef jarg1, HandleRef jarg2);
1500
1501		[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_mBitangents_get")]
1502		public static extern IntPtr aiAnimMesh_mBitangents_get(HandleRef jarg1);
1503
1504		[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_mNumVertices_set")]
1505		public static extern void aiAnimMesh_mNumVertices_set(HandleRef jarg1, uint jarg2);
1506
1507		[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_mNumVertices_get")]
1508		public static extern uint aiAnimMesh_mNumVertices_get(HandleRef jarg1);
1509
1510		[DllImport("Assimp", EntryPoint="CSharp_new_aiAnimMesh")]
1511		public static extern IntPtr new_aiAnimMesh();
1512
1513		[DllImport("Assimp", EntryPoint="CSharp_delete_aiAnimMesh")]
1514		public static extern void delete_aiAnimMesh(HandleRef jarg1);
1515
1516		[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_HasPositions")]
1517		public static extern bool aiAnimMesh_HasPositions(HandleRef jarg1);
1518
1519		[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_HasNormals")]
1520		public static extern bool aiAnimMesh_HasNormals(HandleRef jarg1);
1521
1522		[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_HasTangentsAndBitangents")]
1523		public static extern bool aiAnimMesh_HasTangentsAndBitangents(HandleRef jarg1);
1524
1525		[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_HasVertexColors")]
1526		public static extern bool aiAnimMesh_HasVertexColors(HandleRef jarg1, uint jarg2);
1527
1528		[DllImport("Assimp", EntryPoint="CSharp_aiAnimMesh_HasTextureCoords")]
1529		public static extern bool aiAnimMesh_HasTextureCoords(HandleRef jarg1, uint jarg2);
1530
1531		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mPrimitiveTypes_set")]
1532		public static extern void aiMesh_mPrimitiveTypes_set(HandleRef jarg1, uint jarg2);
1533
1534		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mPrimitiveTypes_get")]
1535		public static extern uint aiMesh_mPrimitiveTypes_get(HandleRef jarg1);
1536
1537		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumVertices_set")]
1538		public static extern void aiMesh_mNumVertices_set(HandleRef jarg1, uint jarg2);
1539
1540		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumVertices_get")]
1541		public static extern uint aiMesh_mNumVertices_get(HandleRef jarg1);
1542
1543		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumFaces_set")]
1544		public static extern void aiMesh_mNumFaces_set(HandleRef jarg1, uint jarg2);
1545
1546		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumFaces_get")]
1547		public static extern uint aiMesh_mNumFaces_get(HandleRef jarg1);
1548
1549		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumBones_set")]
1550		public static extern void aiMesh_mNumBones_set(HandleRef jarg1, uint jarg2);
1551
1552		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumBones_get")]
1553		public static extern uint aiMesh_mNumBones_get(HandleRef jarg1);
1554
1555		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mMaterialIndex_set")]
1556		public static extern void aiMesh_mMaterialIndex_set(HandleRef jarg1, uint jarg2);
1557
1558		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mMaterialIndex_get")]
1559		public static extern uint aiMesh_mMaterialIndex_get(HandleRef jarg1);
1560
1561		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mName_set")]
1562		public static extern void aiMesh_mName_set(HandleRef jarg1, HandleRef jarg2);
1563
1564		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mName_get")]
1565		public static extern IntPtr aiMesh_mName_get(HandleRef jarg1);
1566
1567		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumAnimMeshes_set")]
1568		public static extern void aiMesh_mNumAnimMeshes_set(HandleRef jarg1, uint jarg2);
1569
1570		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_mNumAnimMeshes_get")]
1571		public static extern uint aiMesh_mNumAnimMeshes_get(HandleRef jarg1);
1572
1573		[DllImport("Assimp", EntryPoint="CSharp_new_aiMesh")]
1574		public static extern IntPtr new_aiMesh();
1575
1576		[DllImport("Assimp", EntryPoint="CSharp_delete_aiMesh")]
1577		public static extern void delete_aiMesh(HandleRef jarg1);
1578
1579		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasPositions")]
1580		public static extern bool aiMesh_HasPositions(HandleRef jarg1);
1581
1582		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasFaces")]
1583		public static extern bool aiMesh_HasFaces(HandleRef jarg1);
1584
1585		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasNormals")]
1586		public static extern bool aiMesh_HasNormals(HandleRef jarg1);
1587
1588		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasTangentsAndBitangents")]
1589		public static extern bool aiMesh_HasTangentsAndBitangents(HandleRef jarg1);
1590
1591		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasVertexColors")]
1592		public static extern bool aiMesh_HasVertexColors(HandleRef jarg1, uint jarg2);
1593
1594		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasTextureCoords")]
1595		public static extern bool aiMesh_HasTextureCoords(HandleRef jarg1, uint jarg2);
1596
1597		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetNumUVChannels")]
1598		public static extern uint aiMesh_GetNumUVChannels(HandleRef jarg1);
1599
1600		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetNumColorChannels")]
1601		public static extern uint aiMesh_GetNumColorChannels(HandleRef jarg1);
1602
1603		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_HasBones")]
1604		public static extern bool aiMesh_HasBones(HandleRef jarg1);
1605
1606		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmAnimMeshes")]
1607		public static extern IntPtr aiMesh_GetmAnimMeshes(HandleRef jarg1);
1608
1609		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmBitangents")]
1610		public static extern IntPtr aiMesh_GetmBitangents(HandleRef jarg1);
1611
1612		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmBones")]
1613		public static extern IntPtr aiMesh_GetmBones(HandleRef jarg1);
1614
1615		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmColors")]
1616		public static extern IntPtr aiMesh_GetmColors(HandleRef jarg1);
1617
1618		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmFaces")]
1619		public static extern IntPtr aiMesh_GetmFaces(HandleRef jarg1);
1620
1621		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmNormals")]
1622		public static extern IntPtr aiMesh_GetmNormals(HandleRef jarg1);
1623
1624		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmTangents")]
1625		public static extern IntPtr aiMesh_GetmTangents(HandleRef jarg1);
1626
1627		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmTextureCoords")]
1628		public static extern IntPtr aiMesh_GetmTextureCoords(HandleRef jarg1);
1629
1630		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmNumUVComponents")]
1631		public static extern IntPtr aiMesh_GetmNumUVComponents(HandleRef jarg1);
1632
1633		[DllImport("Assimp", EntryPoint="CSharp_aiMesh_GetmVertices")]
1634		public static extern IntPtr aiMesh_GetmVertices(HandleRef jarg1);
1635
1636		[DllImport("Assimp", EntryPoint="CSharp_AI_DEFAULT_MATERIAL_NAME_get")]
1637		public static extern string AI_DEFAULT_MATERIAL_NAME_get();
1638
1639		[DllImport("Assimp", EntryPoint="CSharp_AI_DEFAULT_TEXTURED_MATERIAL_NAME_get")]
1640		public static extern string AI_DEFAULT_TEXTURED_MATERIAL_NAME_get();
1641
1642		[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mTranslation_set")]
1643		public static extern void aiUVTransform_mTranslation_set(HandleRef jarg1, HandleRef jarg2);
1644
1645		[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mTranslation_get")]
1646		public static extern IntPtr aiUVTransform_mTranslation_get(HandleRef jarg1);
1647
1648		[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mScaling_set")]
1649		public static extern void aiUVTransform_mScaling_set(HandleRef jarg1, HandleRef jarg2);
1650
1651		[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mScaling_get")]
1652		public static extern IntPtr aiUVTransform_mScaling_get(HandleRef jarg1);
1653
1654		[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mRotation_set")]
1655		public static extern void aiUVTransform_mRotation_set(HandleRef jarg1, float jarg2);
1656
1657		[DllImport("Assimp", EntryPoint="CSharp_aiUVTransform_mRotation_get")]
1658		public static extern float aiUVTransform_mRotation_get(HandleRef jarg1);
1659
1660		[DllImport("Assimp", EntryPoint="CSharp_new_aiUVTransform")]
1661		public static extern IntPtr new_aiUVTransform();
1662
1663		[DllImport("Assimp", EntryPoint="CSharp_delete_aiUVTransform")]
1664		public static extern void delete_aiUVTransform(HandleRef jarg1);
1665
1666		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mKey_set")]
1667		public static extern void aiMaterialProperty_mKey_set(HandleRef jarg1, HandleRef jarg2);
1668
1669		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mKey_get")]
1670		public static extern IntPtr aiMaterialProperty_mKey_get(HandleRef jarg1);
1671
1672		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mSemantic_set")]
1673		public static extern void aiMaterialProperty_mSemantic_set(HandleRef jarg1, uint jarg2);
1674
1675		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mSemantic_get")]
1676		public static extern uint aiMaterialProperty_mSemantic_get(HandleRef jarg1);
1677
1678		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mIndex_set")]
1679		public static extern void aiMaterialProperty_mIndex_set(HandleRef jarg1, uint jarg2);
1680
1681		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mIndex_get")]
1682		public static extern uint aiMaterialProperty_mIndex_get(HandleRef jarg1);
1683
1684		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mDataLength_set")]
1685		public static extern void aiMaterialProperty_mDataLength_set(HandleRef jarg1, uint jarg2);
1686
1687		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mDataLength_get")]
1688		public static extern uint aiMaterialProperty_mDataLength_get(HandleRef jarg1);
1689
1690		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mType_set")]
1691		public static extern void aiMaterialProperty_mType_set(HandleRef jarg1, int jarg2);
1692
1693		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mType_get")]
1694		public static extern int aiMaterialProperty_mType_get(HandleRef jarg1);
1695
1696		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mData_set")]
1697		public static extern void aiMaterialProperty_mData_set(HandleRef jarg1, string jarg2);
1698
1699		[DllImport("Assimp", EntryPoint="CSharp_aiMaterialProperty_mData_get")]
1700		public static extern string aiMaterialProperty_mData_get(HandleRef jarg1);
1701
1702		[DllImport("Assimp", EntryPoint="CSharp_new_aiMaterialProperty")]
1703		public static extern IntPtr new_aiMaterialProperty();
1704
1705		[DllImport("Assimp", EntryPoint="CSharp_delete_aiMaterialProperty")]
1706		public static extern void delete_aiMaterialProperty(HandleRef jarg1);
1707
1708		[DllImport("Assimp", EntryPoint="CSharp_new_aiMaterial")]
1709		public static extern IntPtr new_aiMaterial();
1710
1711		[DllImport("Assimp", EntryPoint="CSharp_delete_aiMaterial")]
1712		public static extern void delete_aiMaterial(HandleRef jarg1);
1713
1714		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureCount")]
1715		public static extern uint aiMaterial_GetTextureCount(HandleRef jarg1, int jarg2);
1716
1717		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetDiffuse")]
1718		public static extern bool aiMaterial_GetDiffuse(HandleRef jarg1, HandleRef jarg2);
1719
1720		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetSpecular")]
1721		public static extern bool aiMaterial_GetSpecular(HandleRef jarg1, HandleRef jarg2);
1722
1723		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetAmbient")]
1724		public static extern bool aiMaterial_GetAmbient(HandleRef jarg1, HandleRef jarg2);
1725
1726		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetEmissive")]
1727		public static extern bool aiMaterial_GetEmissive(HandleRef jarg1, HandleRef jarg2);
1728
1729		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetOpacity")]
1730		public static extern bool aiMaterial_GetOpacity(HandleRef jarg1, ref float jarg2);
1731
1732		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetShininessStrength")]
1733		public static extern bool aiMaterial_GetShininessStrength(HandleRef jarg1, ref float jarg2);
1734
1735		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetShadingModel")]
1736		public static extern bool aiMaterial_GetShadingModel(HandleRef jarg1, ref int jarg2);
1737
1738		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTexFlagsDiffuse0")]
1739		public static extern bool aiMaterial_GetTexFlagsDiffuse0(HandleRef jarg1, ref int jarg2);
1740
1741		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetMappingModeUDiffuse0")]
1742		public static extern bool aiMaterial_GetMappingModeUDiffuse0(HandleRef jarg1, ref int jarg2);
1743
1744		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetMappingModeVDiffuse0")]
1745		public static extern bool aiMaterial_GetMappingModeVDiffuse0(HandleRef jarg1, ref int jarg2);
1746
1747		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureDiffuse0")]
1748		public static extern bool aiMaterial_GetTextureDiffuse0(HandleRef jarg1, HandleRef jarg2);
1749
1750		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureSpecular0")]
1751		public static extern bool aiMaterial_GetTextureSpecular0(HandleRef jarg1, HandleRef jarg2);
1752
1753		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureOpacity0")]
1754		public static extern bool aiMaterial_GetTextureOpacity0(HandleRef jarg1, HandleRef jarg2);
1755
1756		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureAmbient0")]
1757		public static extern bool aiMaterial_GetTextureAmbient0(HandleRef jarg1, HandleRef jarg2);
1758
1759		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureEmissive0")]
1760		public static extern bool aiMaterial_GetTextureEmissive0(HandleRef jarg1, HandleRef jarg2);
1761
1762		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureShininess0")]
1763		public static extern bool aiMaterial_GetTextureShininess0(HandleRef jarg1, HandleRef jarg2);
1764
1765		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureLightmap0")]
1766		public static extern bool aiMaterial_GetTextureLightmap0(HandleRef jarg1, HandleRef jarg2);
1767
1768		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureNormals0")]
1769		public static extern bool aiMaterial_GetTextureNormals0(HandleRef jarg1, HandleRef jarg2);
1770
1771		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTextureHeight0")]
1772		public static extern bool aiMaterial_GetTextureHeight0(HandleRef jarg1, HandleRef jarg2);
1773
1774		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetGlobalBackgroundImage")]
1775		public static extern bool aiMaterial_GetGlobalBackgroundImage(HandleRef jarg1, HandleRef jarg2);
1776
1777		[DllImport("Assimp", EntryPoint="CSharp_aiMaterial_GetTwoSided")]
1778		public static extern bool aiMaterial_GetTwoSided(HandleRef jarg1, ref int jarg2);
1779
1780		[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_TEXTURE_BASE_get")]
1781		public static extern string _AI_MATKEY_TEXTURE_BASE_get();
1782
1783		[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_UVWSRC_BASE_get")]
1784		public static extern string _AI_MATKEY_UVWSRC_BASE_get();
1785
1786		[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_TEXOP_BASE_get")]
1787		public static extern string _AI_MATKEY_TEXOP_BASE_get();
1788
1789		[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_MAPPING_BASE_get")]
1790		public static extern string _AI_MATKEY_MAPPING_BASE_get();
1791
1792		[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_TEXBLEND_BASE_get")]
1793		public static extern string _AI_MATKEY_TEXBLEND_BASE_get();
1794
1795		[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_MAPPINGMODE_U_BASE_get")]
1796		public static extern string _AI_MATKEY_MAPPINGMODE_U_BASE_get();
1797
1798		[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_MAPPINGMODE_V_BASE_get")]
1799		public static extern string _AI_MATKEY_MAPPINGMODE_V_BASE_get();
1800
1801		[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_TEXMAP_AXIS_BASE_get")]
1802		public static extern string _AI_MATKEY_TEXMAP_AXIS_BASE_get();
1803
1804		[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_UVTRANSFORM_BASE_get")]
1805		public static extern string _AI_MATKEY_UVTRANSFORM_BASE_get();
1806
1807		[DllImport("Assimp", EntryPoint="CSharp__AI_MATKEY_TEXFLAGS_BASE_get")]
1808		public static extern string _AI_MATKEY_TEXFLAGS_BASE_get();
1809
1810		[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_0")]
1811		public static extern IntPtr new_aiQuaternion__SWIG_0();
1812
1813		[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_1")]
1814		public static extern IntPtr new_aiQuaternion__SWIG_1(float jarg1, float jarg2, float jarg3, float jarg4);
1815
1816		[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_2")]
1817		public static extern IntPtr new_aiQuaternion__SWIG_2(HandleRef jarg1);
1818
1819		[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_3")]
1820		public static extern IntPtr new_aiQuaternion__SWIG_3(float jarg1, float jarg2, float jarg3);
1821
1822		[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_4")]
1823		public static extern IntPtr new_aiQuaternion__SWIG_4(HandleRef jarg1, float jarg2);
1824
1825		[DllImport("Assimp", EntryPoint="CSharp_new_aiQuaternion__SWIG_5")]
1826		public static extern IntPtr new_aiQuaternion__SWIG_5(HandleRef jarg1);
1827
1828		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_GetMatrix")]
1829		public static extern IntPtr aiQuaternion_GetMatrix(HandleRef jarg1);
1830
1831		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion___equal__")]
1832		public static extern bool aiQuaternion___equal__(HandleRef jarg1, HandleRef jarg2);
1833
1834		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion___nequal__")]
1835		public static extern bool aiQuaternion___nequal__(HandleRef jarg1, HandleRef jarg2);
1836
1837		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_Normalize")]
1838		public static extern IntPtr aiQuaternion_Normalize(HandleRef jarg1);
1839
1840		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_Conjugate")]
1841		public static extern IntPtr aiQuaternion_Conjugate(HandleRef jarg1);
1842
1843		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_Rotate")]
1844		public static extern IntPtr aiQuaternion_Rotate(HandleRef jarg1, HandleRef jarg2);
1845
1846		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion___mul__")]
1847		public static extern IntPtr aiQuaternion___mul__(HandleRef jarg1, HandleRef jarg2);
1848
1849		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_Interpolate")]
1850		public static extern void aiQuaternion_Interpolate(HandleRef jarg1, HandleRef jarg2, HandleRef jarg3, float jarg4);
1851
1852		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_w_set")]
1853		public static extern void aiQuaternion_w_set(HandleRef jarg1, float jarg2);
1854
1855		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_w_get")]
1856		public static extern float aiQuaternion_w_get(HandleRef jarg1);
1857
1858		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_x_set")]
1859		public static extern void aiQuaternion_x_set(HandleRef jarg1, float jarg2);
1860
1861		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_x_get")]
1862		public static extern float aiQuaternion_x_get(HandleRef jarg1);
1863
1864		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_y_set")]
1865		public static extern void aiQuaternion_y_set(HandleRef jarg1, float jarg2);
1866
1867		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_y_get")]
1868		public static extern float aiQuaternion_y_get(HandleRef jarg1);
1869
1870		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_z_set")]
1871		public static extern void aiQuaternion_z_set(HandleRef jarg1, float jarg2);
1872
1873		[DllImport("Assimp", EntryPoint="CSharp_aiQuaternion_z_get")]
1874		public static extern float aiQuaternion_z_get(HandleRef jarg1);
1875
1876		[DllImport("Assimp", EntryPoint="CSharp_delete_aiQuaternion")]
1877		public static extern void delete_aiQuaternion(HandleRef jarg1);
1878
1879		[DllImport("Assimp", EntryPoint="CSharp_aiNode_mName_set")]
1880		public static extern void aiNode_mName_set(HandleRef jarg1, HandleRef jarg2);
1881
1882		[DllImport("Assimp", EntryPoint="CSharp_aiNode_mName_get")]
1883		public static extern IntPtr aiNode_mName_get(HandleRef jarg1);
1884
1885		[DllImport("Assimp", EntryPoint="CSharp_aiNode_mTransformation_set")]
1886		public static extern void aiNode_mTransformation_set(HandleRef jarg1, HandleRef jarg2);
1887
1888		[DllImport("Assimp", EntryPoint="CSharp_aiNode_mTransformation_get")]
1889		public static extern IntPtr aiNode_mTransformation_get(HandleRef jarg1);
1890
1891		[DllImport("Assimp", EntryPoint="CSharp_aiNode_mParent_set")]
1892		public static extern void aiNode_mParent_set(HandleRef jarg1, HandleRef jarg2);
1893
1894		[DllImport("Assimp", EntryPoint="CSharp_aiNode_mParent_get")]
1895		public static extern IntPtr aiNode_mParent_get(HandleRef jarg1);
1896
1897		[DllImport("Assimp", EntryPoint="CSharp_aiNode_mNumChildren_set")]
1898		public static extern void aiNode_mNumChildren_set(HandleRef jarg1, uint jarg2);
1899
1900		[DllImport("Assimp", EntryPoint="CSharp_aiNode_mNumChildren_get")]
1901		public static extern uint aiNode_mNumChildren_get(HandleRef jarg1);
1902
1903		[DllImport("Assimp", EntryPoint="CSharp_aiNode_mNumMeshes_set")]
1904		public static extern void aiNode_mNumMeshes_set(HandleRef jarg1, uint jarg2);
1905
1906		[DllImport("Assimp", EntryPoint="CSharp_aiNode_mNumMeshes_get")]
1907		public static extern uint aiNode_mNumMeshes_get(HandleRef jarg1);
1908
1909		[DllImport("Assimp", EntryPoint="CSharp_new_aiNode__SWIG_0")]
1910		public static extern IntPtr new_aiNode__SWIG_0();
1911
1912		[DllImport("Assimp", EntryPoint="CSharp_new_aiNode__SWIG_1")]
1913		public static extern IntPtr new_aiNode__SWIG_1(string jarg1);
1914
1915		[DllImport("Assimp", EntryPoint="CSharp_delete_aiNode")]
1916		public static extern void delete_aiNode(HandleRef jarg1);
1917
1918		[DllImport("Assimp", EntryPoint="CSharp_aiNode_FindNode__SWIG_0")]
1919		public static extern IntPtr aiNode_FindNode__SWIG_0(HandleRef jarg1, HandleRef jarg2);
1920
1921		[DllImport("Assimp", EntryPoint="CSharp_aiNode_FindNode__SWIG_1")]
1922		public static extern IntPtr aiNode_FindNode__SWIG_1(HandleRef jarg1, string jarg2);
1923
1924		[DllImport("Assimp", EntryPoint="CSharp_aiNode_GetmChildren")]
1925		public static extern IntPtr aiNode_GetmChildren(HandleRef jarg1);
1926
1927		[DllImport("Assimp", EntryPoint="CSharp_aiNode_GetmMeshes")]
1928		public static extern IntPtr aiNode_GetmMeshes(HandleRef jarg1);
1929
1930		[DllImport("Assimp", EntryPoint="CSharp_AI_SCENE_FLAGS_INCOMPLETE_get")]
1931		public static extern int AI_SCENE_FLAGS_INCOMPLETE_get();
1932
1933		[DllImport("Assimp", EntryPoint="CSharp_AI_SCENE_FLAGS_VALIDATED_get")]
1934		public static extern int AI_SCENE_FLAGS_VALIDATED_get();
1935
1936		[DllImport("Assimp", EntryPoint="CSharp_AI_SCENE_FLAGS_VALIDATION_WARNING_get")]
1937		public static extern int AI_SCENE_FLAGS_VALIDATION_WARNING_get();
1938
1939		[DllImport("Assimp", EntryPoint="CSharp_AI_SCENE_FLAGS_NON_VERBOSE_FORMAT_get")]
1940		public static extern int AI_SCENE_FLAGS_NON_VERBOSE_FORMAT_get();
1941
1942		[DllImport("Assimp", EntryPoint="CSharp_AI_SCENE_FLAGS_TERRAIN_get")]
1943		public static extern int AI_SCENE_FLAGS_TERRAIN_get();
1944
1945		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mFlags_set")]
1946		public static extern void aiScene_mFlags_set(HandleRef jarg1, uint jarg2);
1947
1948		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mFlags_get")]
1949		public static extern uint aiScene_mFlags_get(HandleRef jarg1);
1950
1951		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mRootNode_set")]
1952		public static extern void aiScene_mRootNode_set(HandleRef jarg1, HandleRef jarg2);
1953
1954		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mRootNode_get")]
1955		public static extern IntPtr aiScene_mRootNode_get(HandleRef jarg1);
1956
1957		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumMeshes_set")]
1958		public static extern void aiScene_mNumMeshes_set(HandleRef jarg1, uint jarg2);
1959
1960		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumMeshes_get")]
1961		public static extern uint aiScene_mNumMeshes_get(HandleRef jarg1);
1962
1963		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumMaterials_set")]
1964		public static extern void aiScene_mNumMaterials_set(HandleRef jarg1, uint jarg2);
1965
1966		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumMaterials_get")]
1967		public static extern uint aiScene_mNumMaterials_get(HandleRef jarg1);
1968
1969		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumAnimations_set")]
1970		public static extern void aiScene_mNumAnimations_set(HandleRef jarg1, uint jarg2);
1971
1972		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumAnimations_get")]
1973		public static extern uint aiScene_mNumAnimations_get(HandleRef jarg1);
1974
1975		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumTextures_set")]
1976		public static extern void aiScene_mNumTextures_set(HandleRef jarg1, uint jarg2);
1977
1978		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumTextures_get")]
1979		public static extern uint aiScene_mNumTextures_get(HandleRef jarg1);
1980
1981		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumLights_set")]
1982		public static extern void aiScene_mNumLights_set(HandleRef jarg1, uint jarg2);
1983
1984		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumLights_get")]
1985		public static extern uint aiScene_mNumLights_get(HandleRef jarg1);
1986
1987		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumCameras_set")]
1988		public static extern void aiScene_mNumCameras_set(HandleRef jarg1, uint jarg2);
1989
1990		[DllImport("Assimp", EntryPoint="CSharp_aiScene_mNumCameras_get")]
1991		public static extern uint aiScene_mNumCameras_get(HandleRef jarg1);
1992
1993		[DllImport("Assimp", EntryPoint="CSharp_new_aiScene")]
1994		public static extern IntPtr new_aiScene();
1995
1996		[DllImport("Assimp", EntryPoint="CSharp_delete_aiScene")]
1997		public static extern void delete_aiScene(HandleRef jarg1);
1998
1999		[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasMeshes")]
2000		public static extern bool aiScene_HasMeshes(HandleRef jarg1);
2001
2002		[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasMaterials")]
2003		public static extern bool aiScene_HasMaterials(HandleRef jarg1);
2004
2005		[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasLights")]
2006		public static extern bool aiScene_HasLights(HandleRef jarg1);
2007
2008		[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasTextures")]
2009		public static extern bool aiScene_HasTextures(HandleRef jarg1);
2010
2011		[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasCameras")]
2012		public static extern bool aiScene_HasCameras(HandleRef jarg1);
2013
2014		[DllImport("Assimp", EntryPoint="CSharp_aiScene_HasAnimations")]
2015		public static extern bool aiScene_HasAnimations(HandleRef jarg1);
2016
2017		[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmAnimations")]
2018		public static extern IntPtr aiScene_GetmAnimations(HandleRef jarg1);
2019
2020		[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmCameras")]
2021		public static extern IntPtr aiScene_GetmCameras(HandleRef jarg1);
2022
2023		[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmLights")]
2024		public static extern IntPtr aiScene_GetmLights(HandleRef jarg1);
2025
2026		[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmMaterials")]
2027		public static extern IntPtr aiScene_GetmMaterials(HandleRef jarg1);
2028
2029		[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmMeshes")]
2030		public static extern IntPtr aiScene_GetmMeshes(HandleRef jarg1);
2031
2032		[DllImport("Assimp", EntryPoint="CSharp_aiScene_GetmTextures")]
2033		public static extern IntPtr aiScene_GetmTextures(HandleRef jarg1);
2034
2035		[DllImport("Assimp", EntryPoint="CSharp_aiTexel_b_set")]
2036		public static extern void aiTexel_b_set(HandleRef jarg1, byte jarg2);
2037
2038		[DllImport("Assimp", EntryPoint="CSharp_aiTexel_b_get")]
2039		public static extern byte aiTexel_b_get(HandleRef jarg1);
2040
2041		[DllImport("Assimp", EntryPoint="CSharp_aiTexel_g_set")]
2042		public static extern void aiTexel_g_set(HandleRef jarg1, byte jarg2);
2043
2044		[DllImport("Assimp", EntryPoint="CSharp_aiTexel_g_get")]
2045		public static extern byte aiTexel_g_get(HandleRef jarg1);
2046
2047		[DllImport("Assimp", EntryPoint="CSharp_aiTexel_r_set")]
2048		public static extern void aiTexel_r_set(HandleRef jarg1, byte jarg2);
2049
2050		[DllImport("Assimp", EntryPoint="CSharp_aiTexel_r_get")]
2051		public static extern byte aiTexel_r_get(HandleRef jarg1);
2052
2053		[DllImport("Assimp", EntryPoint="CSharp_aiTexel_a_set")]
2054		public static extern void aiTexel_a_set(HandleRef jarg1, byte jarg2);
2055
2056		[DllImport("Assimp", EntryPoint="CSharp_aiTexel_a_get")]
2057		public static extern byte aiTexel_a_get(HandleRef jarg1);
2058
2059		[DllImport("Assimp", EntryPoint="CSharp_aiTexel___equal__")]
2060		public static extern bool aiTexel___equal__(HandleRef jarg1, HandleRef jarg2);
2061
2062		[DllImport("Assimp", EntryPoint="CSharp_aiTexel___nequal__")]
2063		public static extern bool aiTexel___nequal__(HandleRef jarg1, HandleRef jarg2);
2064
2065		[DllImport("Assimp", EntryPoint="CSharp_new_aiTexel")]
2066		public static extern IntPtr new_aiTexel();
2067
2068		[DllImport("Assimp", EntryPoint="CSharp_delete_aiTexel")]
2069		public static extern void delete_aiTexel(HandleRef jarg1);
2070
2071		[DllImport("Assimp", EntryPoint="CSharp_aiTexture_mWidth_set")]
2072		public static extern void aiTexture_mWidth_set(HandleRef jarg1, uint jarg2);
2073
2074		[DllImport("Assimp", EntryPoint="CSharp_aiTexture_mWidth_get")]
2075		public static extern uint aiTexture_mWidth_get(HandleRef jarg1);
2076
2077		[DllImport("Assimp", EntryPoint="CSharp_aiTexture_mHeight_set")]
2078		public static extern void aiTexture_mHeight_set(HandleRef jarg1, uint jarg2);
2079
2080		[DllImport("Assimp", EntryPoint="CSharp_aiTexture_mHeight_get")]
2081		public static extern uint aiTexture_mHeight_get(HandleRef jarg1);
2082
2083		[DllImport("Assimp", EntryPoint="CSharp_aiTexture_achFormatHint_set")]
2084		public static extern void aiTexture_achFormatHint_set(HandleRef jarg1, string jarg2);
2085
2086		[DllImport("Assimp", EntryPoint="CSharp_aiTexture_achFormatHint_get")]
2087		public static extern string aiTexture_achFormatHint_get(HandleRef jarg1);
2088
2089		[DllImport("Assimp", EntryPoint="CSharp_aiTexture_pcData_set")]
2090		public static extern void aiTexture_pcData_set(HandleRef jarg1, HandleRef jarg2);
2091
2092		[DllImport("Assimp", EntryPoint="CSharp_aiTexture_pcData_get")]
2093		public static extern IntPtr aiTexture_pcData_get(HandleRef jarg1);
2094
2095		[DllImport("Assimp", EntryPoint="CSharp_aiTexture_CheckFormat")]
2096		public static extern bool aiTexture_CheckFormat(HandleRef jarg1, string jarg2);
2097
2098		[DllImport("Assimp", EntryPoint="CSharp_new_aiTexture")]
2099		public static extern IntPtr new_aiTexture();
2100
2101		[DllImport("Assimp", EntryPoint="CSharp_delete_aiTexture")]
2102		public static extern void delete_aiTexture(HandleRef jarg1);
2103
2104		[DllImport("Assimp", EntryPoint="CSharp_AI_PROPERTY_WAS_NOT_EXISTING_get")]
2105		public static extern int AI_PROPERTY_WAS_NOT_EXISTING_get();
2106
2107		[DllImport("Assimp", EntryPoint="CSharp_aiImportFileFromMemory")]
2108		public static extern IntPtr aiImportFileFromMemory(string jarg1, uint jarg2, uint jarg3, string jarg4);
2109
2110		[DllImport("Assimp", EntryPoint="CSharp_new_Importer__SWIG_0")]
2111		public static extern IntPtr new_Importer__SWIG_0();
2112
2113		[DllImport("Assimp", EntryPoint="CSharp_new_Importer__SWIG_1")]
2114		public static extern IntPtr new_Importer__SWIG_1(HandleRef jarg1);
2115
2116		[DllImport("Assimp", EntryPoint="CSharp_delete_Importer")]
2117		public static extern void delete_Importer(HandleRef jarg1);
2118
2119		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyInteger__SWIG_0")]
2120		public static extern int Importer_GetPropertyInteger__SWIG_0(HandleRef jarg1, string jarg2, int jarg3);
2121
2122		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyInteger__SWIG_1")]
2123		public static extern int Importer_GetPropertyInteger__SWIG_1(HandleRef jarg1, string jarg2);
2124
2125		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyBool__SWIG_0")]
2126		public static extern bool Importer_GetPropertyBool__SWIG_0(HandleRef jarg1, string jarg2, bool jarg3);
2127
2128		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyBool__SWIG_1")]
2129		public static extern bool Importer_GetPropertyBool__SWIG_1(HandleRef jarg1, string jarg2);
2130
2131		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyFloat__SWIG_0")]
2132		public static extern float Importer_GetPropertyFloat__SWIG_0(HandleRef jarg1, string jarg2, float jarg3);
2133
2134		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyFloat__SWIG_1")]
2135		public static extern float Importer_GetPropertyFloat__SWIG_1(HandleRef jarg1, string jarg2);
2136
2137		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyString__SWIG_0")]
2138		public static extern string Importer_GetPropertyString__SWIG_0(HandleRef jarg1, string jarg2, string jarg3);
2139
2140		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetPropertyString__SWIG_1")]
2141		public static extern string Importer_GetPropertyString__SWIG_1(HandleRef jarg1, string jarg2);
2142
2143		[DllImport("Assimp", EntryPoint="CSharp_Importer_IsDefaultIOHandler")]
2144		public static extern bool Importer_IsDefaultIOHandler(HandleRef jarg1);
2145
2146		[DllImport("Assimp", EntryPoint="CSharp_Importer_SetProgressHandler")]
2147		public static extern void Importer_SetProgressHandler(HandleRef jarg1, HandleRef jarg2);
2148
2149		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetProgressHandler")]
2150		public static extern IntPtr Importer_GetProgressHandler(HandleRef jarg1);
2151
2152		[DllImport("Assimp", EntryPoint="CSharp_Importer_IsDefaultProgressHandler")]
2153		public static extern bool Importer_IsDefaultProgressHandler(HandleRef jarg1);
2154
2155		[DllImport("Assimp", EntryPoint="CSharp_Importer_ValidateFlags")]
2156		public static extern bool Importer_ValidateFlags(HandleRef jarg1, uint jarg2);
2157
2158		[DllImport("Assimp", EntryPoint="CSharp_Importer_ReadFile__SWIG_0")]
2159		public static extern IntPtr Importer_ReadFile__SWIG_0(HandleRef jarg1, string jarg2, uint jarg3);
2160
2161		[DllImport("Assimp", EntryPoint="CSharp_Importer_FreeScene")]
2162		public static extern void Importer_FreeScene(HandleRef jarg1);
2163
2164		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetErrorString")]
2165		public static extern string Importer_GetErrorString(HandleRef jarg1);
2166
2167		[DllImport("Assimp", EntryPoint="CSharp_Importer_IsExtensionSupported__SWIG_0")]
2168		public static extern bool Importer_IsExtensionSupported__SWIG_0(HandleRef jarg1, string jarg2);
2169
2170		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetExtensionList__SWIG_0")]
2171		public static extern void Importer_GetExtensionList__SWIG_0(HandleRef jarg1, HandleRef jarg2);
2172
2173		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetExtensionList__SWIG_1")]
2174		public static extern void Importer_GetExtensionList__SWIG_1(HandleRef jarg1, HandleRef jarg2);
2175
2176		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetScene")]
2177		public static extern IntPtr Importer_GetScene(HandleRef jarg1);
2178
2179		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetOrphanedScene")]
2180		public static extern IntPtr Importer_GetOrphanedScene(HandleRef jarg1);
2181
2182		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetMemoryRequirements")]
2183		public static extern void Importer_GetMemoryRequirements(HandleRef jarg1, HandleRef jarg2);
2184
2185		[DllImport("Assimp", EntryPoint="CSharp_Importer_SetExtraVerbose")]
2186		public static extern void Importer_SetExtraVerbose(HandleRef jarg1, bool jarg2);
2187
2188		[DllImport("Assimp", EntryPoint="CSharp_Importer_GetExtensionList__SWIG_2")]
2189		public static extern string Importer_GetExtensionList__SWIG_2(HandleRef jarg1);
2190
2191		[DllImport("Assimp", EntryPoint="CSharp_delete_ProgressHandler")]
2192		public static extern void delete_ProgressHandler(HandleRef jarg1);
2193
2194		[DllImport("Assimp", EntryPoint="CSharp_ProgressHandler_Update__SWIG_0")]
2195		public static extern bool ProgressHandler_Update__SWIG_0(HandleRef jarg1, float jarg2);
2196
2197		[DllImport("Assimp", EntryPoint="CSharp_ProgressHandler_Update__SWIG_1")]
2198		public static extern bool ProgressHandler_Update__SWIG_1(HandleRef jarg1);
2199	2283
2200	2284	[DllImport("Assimp", EntryPoint="CSharp_FloatVector_Clear")]
2201	2285	public static extern void FloatVector_Clear(HandleRef jarg1);

-1

port/Assimp.NET/Assimp.NET_CS/FloatVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

+50

-16

port/Assimp.NET/Assimp.NET_CS/Importer.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

127	127	return ret;
128	128	}
129	129
130		public bool IsExtensionSupported(string szExtension) {
131		bool ret = AssimpPINVOKE.Importer_IsExtensionSupported__SWIG_0(swigCPtr, szExtension);
132		return ret;
133		}
134
135		public void GetExtensionList(aiString szOut) {
136		AssimpPINVOKE.Importer_GetExtensionList__SWIG_0(swigCPtr, aiString.getCPtr(szOut));
137		if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
138		}
139
140		public void GetExtensionList(SWIGTYPE_p_std__string szOut) {
141		AssimpPINVOKE.Importer_GetExtensionList__SWIG_1(swigCPtr, SWIGTYPE_p_std__string.getCPtr(szOut));
142		if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
143		}
144
145	130	public aiScene GetScene() {
146	131	IntPtr cPtr = AssimpPINVOKE.Importer_GetScene(swigCPtr);
147	132	aiScene ret = (cPtr == IntPtr.Zero) ? null : new aiScene(cPtr, false);

154	139	return ret;
155	140	}
156	141
	142	public bool IsExtensionSupported(string szExtension) {
	143	bool ret = AssimpPINVOKE.Importer_IsExtensionSupported__SWIG_0(swigCPtr, szExtension);
	144	return ret;
	145	}
	146
	147	public void GetExtensionList(aiString szOut) {
	148	AssimpPINVOKE.Importer_GetExtensionList__SWIG_0(swigCPtr, aiString.getCPtr(szOut));
	149	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
	150	}
	151
	152	public void GetExtensionList(SWIGTYPE_p_std__string szOut) {
	153	AssimpPINVOKE.Importer_GetExtensionList__SWIG_1(swigCPtr, SWIGTYPE_p_std__string.getCPtr(szOut));
	154	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
	155	}
	156
	157	public uint GetImporterCount() {
	158	uint ret = AssimpPINVOKE.Importer_GetImporterCount(swigCPtr);
	159	return ret;
	160	}
	161
	162	public SWIGTYPE_p_aiImporterDesc GetImporterInfo(uint index) {
	163	IntPtr cPtr = AssimpPINVOKE.Importer_GetImporterInfo(swigCPtr, index);
	164	SWIGTYPE_p_aiImporterDesc ret = (cPtr == IntPtr.Zero) ? null : new SWIGTYPE_p_aiImporterDesc(cPtr, false);
	165	return ret;
	166	}
	167
	168	public SWIGTYPE_p_Assimp__BaseImporter GetImporter(uint index) {
	169	IntPtr cPtr = AssimpPINVOKE.Importer_GetImporter__SWIG_0(swigCPtr, index);
	170	SWIGTYPE_p_Assimp__BaseImporter ret = (cPtr == IntPtr.Zero) ? null : new SWIGTYPE_p_Assimp__BaseImporter(cPtr, false);
	171	return ret;
	172	}
	173
	174	public SWIGTYPE_p_Assimp__BaseImporter GetImporter(string szExtension) {
	175	IntPtr cPtr = AssimpPINVOKE.Importer_GetImporter__SWIG_1(swigCPtr, szExtension);
	176	SWIGTYPE_p_Assimp__BaseImporter ret = (cPtr == IntPtr.Zero) ? null : new SWIGTYPE_p_Assimp__BaseImporter(cPtr, false);
	177	return ret;
	178	}
	179
	180	public uint GetImporterIndex(string szExtension) {
	181	uint ret = AssimpPINVOKE.Importer_GetImporterIndex(swigCPtr, szExtension);
	182	return ret;
	183	}
	184
157	185	public void GetMemoryRequirements(aiMemoryInfo arg0) {
158	186	AssimpPINVOKE.Importer_GetMemoryRequirements(swigCPtr, aiMemoryInfo.getCPtr(arg0));
159	187	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();

163	191	AssimpPINVOKE.Importer_SetExtraVerbose(swigCPtr, bDo);
164	192	}
165	193
	194	public SWIGTYPE_p_Assimp__ImporterPimpl Pimpl() {
	195	IntPtr cPtr = AssimpPINVOKE.Importer_Pimpl__SWIG_0(swigCPtr);
	196	SWIGTYPE_p_Assimp__ImporterPimpl ret = (cPtr == IntPtr.Zero) ? null : new SWIGTYPE_p_Assimp__ImporterPimpl(cPtr, false);
	197	return ret;
	198	}
	199
166	200	public string GetExtensionList() {
167	201	string ret = AssimpPINVOKE.Importer_GetExtensionList__SWIG_2(swigCPtr);
168	202	return ret;

-1

port/Assimp.NET/Assimp.NET_CS/ProgressHandler.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

+27

-0

port/Assimp.NET/Assimp.NET_CS/SWIGTYPE_p_Assimp__BaseImporter.cs less more

	0	/* ----------------------------------------------------------------------------
	1	* This file was automatically generated by SWIG (http://www.swig.org).
	2	* Version 2.0.8
	3	*
	4	* Do not make changes to this file unless you know what you are doing--modify
	5	* the SWIG interface file instead.
	6	* ----------------------------------------------------------------------------- */
	7
	8
	9	using System;
	10	using System.Runtime.InteropServices;
	11
	12	public class SWIGTYPE_p_Assimp__BaseImporter {
	13	private HandleRef swigCPtr;
	14
	15	internal SWIGTYPE_p_Assimp__BaseImporter(IntPtr cPtr, bool futureUse) {
	16	swigCPtr = new HandleRef(this, cPtr);
	17	}
	18
	19	protected SWIGTYPE_p_Assimp__BaseImporter() {
	20	swigCPtr = new HandleRef(null, IntPtr.Zero);
	21	}
	22
	23	internal static HandleRef getCPtr(SWIGTYPE_p_Assimp__BaseImporter obj) {
	24	return (obj == null) ? new HandleRef(null, IntPtr.Zero) : obj.swigCPtr;
	25	}
	26	}

+27

-0

port/Assimp.NET/Assimp.NET_CS/SWIGTYPE_p_Assimp__ImporterPimpl.cs less more

	0	/* ----------------------------------------------------------------------------
	1	* This file was automatically generated by SWIG (http://www.swig.org).
	2	* Version 2.0.8
	3	*
	4	* Do not make changes to this file unless you know what you are doing--modify
	5	* the SWIG interface file instead.
	6	* ----------------------------------------------------------------------------- */
	7
	8
	9	using System;
	10	using System.Runtime.InteropServices;
	11
	12	public class SWIGTYPE_p_Assimp__ImporterPimpl {
	13	private HandleRef swigCPtr;
	14
	15	internal SWIGTYPE_p_Assimp__ImporterPimpl(IntPtr cPtr, bool futureUse) {
	16	swigCPtr = new HandleRef(this, cPtr);
	17	}
	18
	19	protected SWIGTYPE_p_Assimp__ImporterPimpl() {
	20	swigCPtr = new HandleRef(null, IntPtr.Zero);
	21	}
	22
	23	internal static HandleRef getCPtr(SWIGTYPE_p_Assimp__ImporterPimpl obj) {
	24	return (obj == null) ? new HandleRef(null, IntPtr.Zero) : obj.swigCPtr;
	25	}
	26	}

+27

-0

port/Assimp.NET/Assimp.NET_CS/SWIGTYPE_p_aiImporterDesc.cs less more

	0	/* ----------------------------------------------------------------------------
	1	* This file was automatically generated by SWIG (http://www.swig.org).
	2	* Version 2.0.8
	3	*
	4	* Do not make changes to this file unless you know what you are doing--modify
	5	* the SWIG interface file instead.
	6	* ----------------------------------------------------------------------------- */
	7
	8
	9	using System;
	10	using System.Runtime.InteropServices;
	11
	12	public class SWIGTYPE_p_aiImporterDesc {
	13	private HandleRef swigCPtr;
	14
	15	internal SWIGTYPE_p_aiImporterDesc(IntPtr cPtr, bool futureUse) {
	16	swigCPtr = new HandleRef(this, cPtr);
	17	}
	18
	19	protected SWIGTYPE_p_aiImporterDesc() {
	20	swigCPtr = new HandleRef(null, IntPtr.Zero);
	21	}
	22
	23	internal static HandleRef getCPtr(SWIGTYPE_p_aiImporterDesc obj) {
	24	return (obj == null) ? new HandleRef(null, IntPtr.Zero) : obj.swigCPtr;
	25	}
	26	}

+27

-0

port/Assimp.NET/Assimp.NET_CS/SWIGTYPE_p_float.cs less more

	0	/* ----------------------------------------------------------------------------
	1	* This file was automatically generated by SWIG (http://www.swig.org).
	2	* Version 2.0.8
	3	*
	4	* Do not make changes to this file unless you know what you are doing--modify
	5	* the SWIG interface file instead.
	6	* ----------------------------------------------------------------------------- */
	7
	8
	9	using System;
	10	using System.Runtime.InteropServices;
	11
	12	public class SWIGTYPE_p_float {
	13	private HandleRef swigCPtr;
	14
	15	internal SWIGTYPE_p_float(IntPtr cPtr, bool futureUse) {
	16	swigCPtr = new HandleRef(this, cPtr);
	17	}
	18
	19	protected SWIGTYPE_p_float() {
	20	swigCPtr = new HandleRef(null, IntPtr.Zero);
	21	}
	22
	23	internal static HandleRef getCPtr(SWIGTYPE_p_float obj) {
	24	return (obj == null) ? new HandleRef(null, IntPtr.Zero) : obj.swigCPtr;
	25	}
	26	}

-1

port/Assimp.NET/Assimp.NET_CS/SWIGTYPE_p_std__string.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

+27

-0

port/Assimp.NET/Assimp.NET_CS/SWIGTYPE_p_void.cs less more

	0	/* ----------------------------------------------------------------------------
	1	* This file was automatically generated by SWIG (http://www.swig.org).
	2	* Version 2.0.8
	3	*
	4	* Do not make changes to this file unless you know what you are doing--modify
	5	* the SWIG interface file instead.
	6	* ----------------------------------------------------------------------------- */
	7
	8
	9	using System;
	10	using System.Runtime.InteropServices;
	11
	12	public class SWIGTYPE_p_void {
	13	private HandleRef swigCPtr;
	14
	15	internal SWIGTYPE_p_void(IntPtr cPtr, bool futureUse) {
	16	swigCPtr = new HandleRef(this, cPtr);
	17	}
	18
	19	protected SWIGTYPE_p_void() {
	20	swigCPtr = new HandleRef(null, IntPtr.Zero);
	21	}
	22
	23	internal static HandleRef getCPtr(SWIGTYPE_p_void obj) {
	24	return (obj == null) ? new HandleRef(null, IntPtr.Zero) : obj.swigCPtr;
	25	}
	26	}

-1

port/Assimp.NET/Assimp.NET_CS/UintVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiAnimBehaviour.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiAnimMesh.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiAnimMeshVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiAnimation.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiAnimationVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiBlendMode.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiBone.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiBoneVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiCamera.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiCameraVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiColor3D.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiColor4D.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiColor4DVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiColor4DVectorVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiComponent.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiDefaultLogStream.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiFace.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiFaceVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiLight.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiLightSourceType.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiLightVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

+44

-1

port/Assimp.NET/Assimp.NET_CS/aiMaterial.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

75	75	return ret;
76	76	}
77	77
	78	public aiReturn AddBinaryProperty(SWIGTYPE_p_void pInput, uint pSizeInBytes, string pKey, uint type, uint index, aiPropertyTypeInfo pType) {
	79	aiReturn ret = (aiReturn)AssimpPINVOKE.aiMaterial_AddBinaryProperty(swigCPtr, SWIGTYPE_p_void.getCPtr(pInput), pSizeInBytes, pKey, type, index, (int)pType);
	80	return ret;
	81	}
	82
	83	public aiReturn AddProperty(aiString pInput, string pKey, uint type, uint index) {
	84	aiReturn ret = (aiReturn)AssimpPINVOKE.aiMaterial_AddProperty__SWIG_0(swigCPtr, aiString.getCPtr(pInput), pKey, type, index);
	85	return ret;
	86	}
	87
	88	public aiReturn AddProperty(aiString pInput, string pKey, uint type) {
	89	aiReturn ret = (aiReturn)AssimpPINVOKE.aiMaterial_AddProperty__SWIG_1(swigCPtr, aiString.getCPtr(pInput), pKey, type);
	90	return ret;
	91	}
	92
	93	public aiReturn AddProperty(aiString pInput, string pKey) {
	94	aiReturn ret = (aiReturn)AssimpPINVOKE.aiMaterial_AddProperty__SWIG_2(swigCPtr, aiString.getCPtr(pInput), pKey);
	95	return ret;
	96	}
	97
	98	public aiReturn RemoveProperty(string pKey, uint type, uint index) {
	99	aiReturn ret = (aiReturn)AssimpPINVOKE.aiMaterial_RemoveProperty__SWIG_0(swigCPtr, pKey, type, index);
	100	return ret;
	101	}
	102
	103	public aiReturn RemoveProperty(string pKey, uint type) {
	104	aiReturn ret = (aiReturn)AssimpPINVOKE.aiMaterial_RemoveProperty__SWIG_1(swigCPtr, pKey, type);
	105	return ret;
	106	}
	107
	108	public aiReturn RemoveProperty(string pKey) {
	109	aiReturn ret = (aiReturn)AssimpPINVOKE.aiMaterial_RemoveProperty__SWIG_2(swigCPtr, pKey);
	110	return ret;
	111	}
	112
	113	public void Clear() {
	114	AssimpPINVOKE.aiMaterial_Clear(swigCPtr);
	115	}
	116
	117	public static void CopyPropertyList(aiMaterial pcDest, aiMaterial pcSrc) {
	118	AssimpPINVOKE.aiMaterial_CopyPropertyList(aiMaterial.getCPtr(pcDest), aiMaterial.getCPtr(pcSrc));
	119	}
	120
78	121	public bool GetDiffuse(aiColor4D INOUT) {
79	122	bool ret = AssimpPINVOKE.aiMaterial_GetDiffuse(swigCPtr, aiColor4D.getCPtr(INOUT));
80	123	return ret;

-1

port/Assimp.NET/Assimp.NET_CS/aiMaterialProperty.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiMaterialVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

+31

-1

port/Assimp.NET/Assimp.NET_CS/aiMatrix3x3.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

45	45	public aiMatrix3x3(float _a1, float _a2, float _a3, float _b1, float _b2, float _b3, float _c1, float _c2, float _c3) : this(AssimpPINVOKE.new_aiMatrix3x3__SWIG_1(_a1, _a2, _a3, _b1, _b2, _b3, _c1, _c2, _c3), true) {
46	46	}
47	47
	48	public aiMatrix3x3 __mulnset__(aiMatrix3x3 m) {
	49	aiMatrix3x3 ret = new aiMatrix3x3(AssimpPINVOKE.aiMatrix3x3___mulnset__(swigCPtr, aiMatrix3x3.getCPtr(m)), false);
	50	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
	51	return ret;
	52	}
	53
	54	public aiMatrix3x3 __mul__(aiMatrix3x3 m) {
	55	aiMatrix3x3 ret = new aiMatrix3x3(AssimpPINVOKE.aiMatrix3x3___mul__(swigCPtr, aiMatrix3x3.getCPtr(m)), true);
	56	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
	57	return ret;
	58	}
	59
	60	public SWIGTYPE_p_float __idx__(uint p_iIndex) {
	61	IntPtr cPtr = AssimpPINVOKE.aiMatrix3x3___idx____SWIG_0(swigCPtr, p_iIndex);
	62	SWIGTYPE_p_float ret = (cPtr == IntPtr.Zero) ? null : new SWIGTYPE_p_float(cPtr, false);
	63	return ret;
	64	}
	65
	66	public bool __equal__(aiMatrix4x4 m) {
	67	bool ret = AssimpPINVOKE.aiMatrix3x3___equal__(swigCPtr, aiMatrix4x4.getCPtr(m));
	68	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
	69	return ret;
	70	}
	71
	72	public bool __nequal__(aiMatrix4x4 m) {
	73	bool ret = AssimpPINVOKE.aiMatrix3x3___nequal__(swigCPtr, aiMatrix4x4.getCPtr(m));
	74	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
	75	return ret;
	76	}
	77
48	78	public aiMatrix3x3(aiMatrix4x4 pMatrix) : this(AssimpPINVOKE.new_aiMatrix3x3__SWIG_2(aiMatrix4x4.getCPtr(pMatrix)), true) {
49	79	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
50	80	}

+31

-1

port/Assimp.NET/Assimp.NET_CS/aiMatrix4x4.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

49	49	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
50	50	}
51	51
	52	public SWIGTYPE_p_float __idx__(uint p_iIndex) {
	53	IntPtr cPtr = AssimpPINVOKE.aiMatrix4x4___idx____SWIG_0(swigCPtr, p_iIndex);
	54	SWIGTYPE_p_float ret = (cPtr == IntPtr.Zero) ? null : new SWIGTYPE_p_float(cPtr, false);
	55	return ret;
	56	}
	57
	58	public bool __equal__(aiMatrix4x4 m) {
	59	bool ret = AssimpPINVOKE.aiMatrix4x4___equal__(swigCPtr, aiMatrix4x4.getCPtr(m));
	60	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
	61	return ret;
	62	}
	63
	64	public bool __nequal__(aiMatrix4x4 m) {
	65	bool ret = AssimpPINVOKE.aiMatrix4x4___nequal__(swigCPtr, aiMatrix4x4.getCPtr(m));
	66	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
	67	return ret;
	68	}
	69
	70	public aiMatrix4x4 __mulnset__(aiMatrix4x4 m) {
	71	aiMatrix4x4 ret = new aiMatrix4x4(AssimpPINVOKE.aiMatrix4x4___mulnset__(swigCPtr, aiMatrix4x4.getCPtr(m)), false);
	72	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
	73	return ret;
	74	}
	75
	76	public aiMatrix4x4 __mul__(aiMatrix4x4 m) {
	77	aiMatrix4x4 ret = new aiMatrix4x4(AssimpPINVOKE.aiMatrix4x4___mul__(swigCPtr, aiMatrix4x4.getCPtr(m)), true);
	78	if (AssimpPINVOKE.SWIGPendingException.Pending) throw AssimpPINVOKE.SWIGPendingException.Retrieve();
	79	return ret;
	80	}
	81
52	82	public aiMatrix4x4 Transpose() {
53	83	aiMatrix4x4 ret = new aiMatrix4x4(AssimpPINVOKE.aiMatrix4x4_Transpose(swigCPtr), false);
54	84	return ret;

-1

port/Assimp.NET/Assimp.NET_CS/aiMemoryInfo.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiMesh.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiMeshAnim.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiMeshAnimVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiMeshKey.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiMeshKeyVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiMeshVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiNode.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiNodeAnim.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiNodeAnimVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiNodeVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiOrigin.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiPlane.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-2

port/Assimp.NET/Assimp.NET_CS/aiPostProcessSteps.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

30	30	aiProcess_OptimizeMeshes = 0x200000,
31	31	aiProcess_OptimizeGraph = 0x400000,
32	32	aiProcess_FlipUVs = 0x800000,
33		aiProcess_FlipWindingOrder = 0x1000000
	33	aiProcess_FlipWindingOrder = 0x1000000,
	34	aiProcess_SplitByBoneCount = 0x2000000,
	35	aiProcess_Debone = 0x4000000
34	36
35	37	, aiProcess_ConvertToLeftHanded = aiProcess_MakeLeftHanded\|aiProcess_FlipUVs\|aiProcess_FlipWindingOrder,
36	38	}

-1

port/Assimp.NET/Assimp.NET_CS/aiPrimitiveType.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiPropertyTypeInfo.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiQuatKey.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiQuatKeyVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-2

port/Assimp.NET/Assimp.NET_CS/aiQuaternion.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

42	42	public aiQuaternion() : this(AssimpPINVOKE.new_aiQuaternion__SWIG_0(), true) {
43	43	}
44	44
45		public aiQuaternion(float _w, float _x, float _y, float _z) : this(AssimpPINVOKE.new_aiQuaternion__SWIG_1(_w, _x, _y, _z), true) {
	45	public aiQuaternion(float w, float x, float y, float z) : this(AssimpPINVOKE.new_aiQuaternion__SWIG_1(w, x, y, z), true) {
46	46	}
47	47
48	48	public aiQuaternion(aiMatrix3x3 pRotMatrix) : this(AssimpPINVOKE.new_aiQuaternion__SWIG_2(aiMatrix3x3.getCPtr(pRotMatrix)), true) {

-1

port/Assimp.NET/Assimp.NET_CS/aiRay.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiReturn.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

+12

-1

port/Assimp.NET/Assimp.NET_CS/aiScene.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

160	160	return ret;
161	161	}
162	162
	163	public SWIGTYPE_p_void mPrivate {
	164	set {
	165	AssimpPINVOKE.aiScene_mPrivate_set(swigCPtr, SWIGTYPE_p_void.getCPtr(value));
	166	}
	167	get {
	168	IntPtr cPtr = AssimpPINVOKE.aiScene_mPrivate_get(swigCPtr);
	169	SWIGTYPE_p_void ret = (cPtr == IntPtr.Zero) ? null : new SWIGTYPE_p_void(cPtr, false);
	170	return ret;
	171	}
	172	}
	173
163	174	private aiAnimationVector GetmAnimations() {
164	175	IntPtr cPtr = AssimpPINVOKE.aiScene_GetmAnimations(swigCPtr);
165	176	aiAnimationVector ret = (cPtr == IntPtr.Zero) ? null : new aiAnimationVector(cPtr, true);

-1

port/Assimp.NET/Assimp.NET_CS/aiShadingMode.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiString.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

69	69	return ret;
70	70	}
71	71
	72	public string C_Str() {
	73	string ret = AssimpPINVOKE.aiString_C_Str(swigCPtr);
	74	return ret;
	75	}
	76
72	77	public uint Length {
73	78	set {
74	79	AssimpPINVOKE.aiString_Length_set(swigCPtr, value);

-1

port/Assimp.NET/Assimp.NET_CS/aiTexel.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiTexture.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiTextureFlags.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiTextureMapMode.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiTextureMapping.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiTextureOp.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiTextureType.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiTextureVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiUVTransform.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiVector2D.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiVector3D.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiVector3DVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiVector3DVectorVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiVectorKey.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiVectorKeyVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiVertexWeight.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_CS/aiVertexWeightVector.cs less more

0	0	/* ----------------------------------------------------------------------------
1	1	* This file was automatically generated by SWIG (http://www.swig.org).
2		* Version 2.0.1
	2	* Version 2.0.8
3	3	*
4	4	* Do not make changes to this file unless you know what you are doing--modify
5	5	* the SWIG interface file instead.

-1

port/Assimp.NET/Assimp.NET_DEMO/AssimpView.cs less more

183	183	(aiPostProcessSteps)0);
184	184
185	185	// default model
186		var path = "../../../../../../test/models/3DS/test1.3ds";
	186	var path = "../../../../../test/models/3DS/test1.3ds";
187	187
188	188	importer = new Importer();
189	189	string[] args = Environment.GetCommandLineArgs();

-66

~~port/PyAssimp/README~~ less more

0		PyAssimp Readme
1		---------------
2
3
4		-- a simple Python wrapper for Assimp using ctypes to access
5		the library. Tested for Python 2.6. Known not to work with
6		Python 2.4.
7
8
9		Note that pyassimp is by no means considered mature. It works,
10		but it is far away from wrapping Assimp perfectly.
11
12
13		USAGE
14		=====
15
16		To get started with pyAssimp, examine the sample.py script, which
17		illustrates the basic usage. All Assimp data structures are
18		wrapped using ctypes. All the data+length fields in Assimp's
19		data structures (such as 'aiMesh::mNumVertices','aiMesh::mVertices')
20		are replaced by simple python lists, so you can call len() on
21		them to get their respective size and access members using
22		[].
23
24		For example, to load a file named 'hello.3ds' and print the first
25		vertex of the first mesh, you would do (proper error handling
26		substituted by assertions ...):
27
28		> from pyassimp import pyassimp, errors
29		>
30		> try:
31		> scene = pyassimp.load('hello.3ds')
32		> except AssimpError, msg:
33		> print(msg)
34		> return
35
36		> assert len(scene.meshes)
37		> mesh = scene.meshes[0]
38
39		> assert len(mesh.vertices)
40		> print(mesh.vertices[0])
41
42		> # don't forget this one, or you will leak!
43		> pyassimp.release(scene)
44
45
46		INSTALL
47		=======
48
49		PyAssimp requires a assimp dynamic library (DLL on windows,
50		so on linux :-) in order to work. The default search directories
51		are:
52
53		- the current directory
54		- on linux additionally: /usr/local/lib
55
56		To build that library, refer to the Assimp master INSTALL
57		instructions. To look in more places, edit ./pyassimp/helper.py.
58		There's an 'additional_dirs' list waiting for your entries.
59
60
61
62
63
64
65

+74

-0

port/PyAssimp/README.md less more

	0	PyAssimp Readme
	1	===============
	2
	3	A simple Python wrapper for Assimp using `ctypes` to access the library.
	4	Requires Python >= 2.6.
	5
	6	Python 3 support is mostly here, but not well tested.
	7
	8	Note that pyassimp is not complete. Many ASSIMP features are missing. In
	9	particular, only loading of models is currently supported (no export).
	10
	11	USAGE
	12	-----
	13
	14	To get started with pyAssimp, examine the `sample.py` script in `scripts/`,
	15	which illustrates the basic usage. All Assimp data structures are wrapped using
	16	ctypes. All the data+length fields in Assimp's data structures (such as
	17	`aiMesh::mNumVertices`, `aiMesh::mVertices`) are replaced by simple python
	18	lists, so you can call len() on them to get their respective size and access
	19	members using [].
	20
	21	For example, to load a file named 'hello.3ds' and print the first
	22	vertex of the first mesh, you would do (proper error handling
	23	substituted by assertions ...):
	24
	25	```python
	26
	27	from pyassimp import *
	28	scene = load('hello.3ds')
	29
	30	assert len(scene.meshes)
	31	mesh = scene.meshes[0]
	32
	33	assert len(mesh.vertices)
	34	print(mesh.vertices[0])
	35
	36	# don't forget this one, or you will leak!
	37	release(scene)
	38
	39	```
	40
	41	Another example to list the 'top nodes' in a
	42	scene:
	43
	44	```python
	45
	46	from pyassimp import *
	47	scene = load('hello.3ds')
	48
	49	for c in scene.rootnode.children:
	50	print(str(c))
	51
	52	release(scene)
	53
	54	```
	55
	56	INSTALL
	57	-------
	58
	59	Install `pyassimp` by running:
	60
	61	> python setup.py install
	62
	63	PyAssimp requires a assimp dynamic library (`DLL` on windows,
	64	`.so` on linux :-) in order to work. The default search directories
	65	are:
	66
	67	- the current directory
	68	- on linux additionally: `/usr/lib` and `/usr/local/lib`
	69
	70	To build that library, refer to the Assimp master INSTALL
	71	instructions. To look in more places, edit `./pyassimp/helper.py`.
	72	There's an `additional_dirs` list waiting for your entries.
	73

+16

-7

port/PyAssimp/gen/structsgen.py less more

40	40	# ---------------------------------------------------------------------------
41	41
42	42	"""Update PyAssimp's data structures to keep up with the
43		C/C++ headers."""
	43	C/C++ headers.
	44
	45	This script is meant to be executed in the source tree, directly from
	46	port/PyAssimp/gen
	47	"""
44	48
45	49	import os
46	50	import re

95	99	return None
96	100
97	101	t = t.strip()
98		types = {'unsigned int':'uint', 'unsigned char':'ubyte', 'size_t':'uint',}
	102	types = {'unsigned int':'uint', 'unsigned char':'ubyte',}
99	103	if t in types:
100	104	t = types[t]
101	105	t = prefix + t

209	213
210	214	# Restructure
211	215	text = RErestruc.sub(restructure, text)
212
213	216	# Replace comments
214		text = RErpcom.sub('#\g<line>', text)
	217	text = RErpcom.sub('# \g<line>', text)
	218	text = text.replace("),#", "),\n#")
	219	text = text.replace("#", "\n#")
	220	text = "".join([l for l in text.splitlines(True) if not l.strip().endswith("#")]) # remove empty comment lines
215	221
216	222	# Whether it's selfreferencing: ex. struct Node { Node* parent; };
217	223	selfreferencing = text.find('POINTER('+name+')') != -1

244	250	text = text.replace('$DEFINES$', defines)
245	251	else:
246	252	text = text.replace('$DEFINES$', '')
	253
247	254
248	255	result.append((primitive, selfreferencing, complex, text))
249	256
250	257	return result
251	258
252	259	text = "#-- coding: UTF-8 --\n\n"
253		text += "from ctypes import POINTER, c_int, c_uint, c_char, c_float, Structure, c_char_p, c_double, c_ubyte\n\n"
	260	text += "from ctypes import POINTER, c_int, c_uint, c_size_t, c_char, c_float, Structure, c_char_p, c_double, c_ubyte\n\n"
254	261
255	262	structs1 = ""
256	263	structs2 = ""
257	264	structs3 = ""
258	265	structs4 = ""
259	266
260		path = '../include/'
	267	path = '../../../include/assimp'
261	268	files = os.listdir (path)
262	269	#files = ["aiScene.h", "aiTypes.h"]
263	270	for fileName in files:

275	282
276	283	text += structs1 + structs2 + structs3 + structs4
277	284
278		file = open('structs.txt', 'w')
	285	file = open('structs.py', 'w')
279	286	file.write(text)
280	287	file.close()
	288
	289	print("Generation done. You can now review the file 'structs.py' and merge it.")

-1

port/PyAssimp/pyassimp/__init__.py less more

0		#-- coding: UTF-8 --
	0	from .core import *

+413

-0

port/PyAssimp/pyassimp/core.py less more

	0	#-- coding: UTF-8 --
	1
	2	"""
	3	PyAssimp
	4
	5	This is the main-module of PyAssimp.
	6	"""
	7
	8	import sys
	9	if sys.version_info < (2,6):
	10	raise 'pyassimp: need python 2.6 or newer'
	11
	12
	13	import ctypes
	14	import os
	15	import numpy
	16
	17	import logging; logger = logging.getLogger("pyassimp")
	18
	19	# Attach a default, null handler, to the logger.
	20	# applications can easily get log messages from pyassimp
	21	# by calling for instance
	22	# >>> logging.basicConfig(level=logging.DEBUG)
	23	# before importing pyassimp
	24	class NullHandler(logging.Handler):
	25	def emit(self, record):
	26	pass
	27	h = NullHandler()
	28	logger.addHandler(h)
	29
	30	from . import structs
	31	from .errors import AssimpError
	32	from . import helper
	33
	34
	35	assimp_structs_as_tuple = (
	36	structs.Matrix4x4,
	37	structs.Matrix3x3,
	38	structs.Vector2D,
	39	structs.Vector3D,
	40	structs.Color3D,
	41	structs.Color4D,
	42	structs.Quaternion,
	43	structs.Plane,
	44	structs.Texel)
	45
	46	def make_tuple(ai_obj, type = None):
	47	res = None
	48
	49	if isinstance(ai_obj, structs.Matrix4x4):
	50	res = numpy.array([getattr(ai_obj, e[0]) for e in ai_obj._fields_]).reshape((4,4))
	51	#import pdb;pdb.set_trace()
	52	elif isinstance(ai_obj, structs.Matrix3x3):
	53	res = numpy.array([getattr(ai_obj, e[0]) for e in ai_obj._fields_]).reshape((3,3))
	54	else:
	55	res = numpy.array([getattr(ai_obj, e[0]) for e in ai_obj._fields_])
	56
	57	return res
	58
	59	# It is faster and more correct to have an init function for each assimp class
	60	def _init_face(aiFace):
	61	aiFace.indices = [aiFace.mIndices[i] for i in range(aiFace.mNumIndices)]
	62
	63	assimp_struct_inits = \
	64	{ structs.Face : _init_face }
	65
	66	def call_init(obj, caller = None):
	67	if helper.hasattr_silent(obj,'contents'): #pointer
	68	_init(obj.contents, obj, caller)
	69	else:
	70	_init(obj,parent=caller)
	71
	72	def _is_init_type(obj):
	73	if helper.hasattr_silent(obj,'contents'): #pointer
	74	return _is_init_type(obj[0])
	75	# null-pointer case that arises when we reach a mesh attribute
	76	# like mBitangents which use mNumVertices rather than mNumBitangents
	77	# so it breaks the 'is iterable' check.
	78	# Basically:
	79	# FIXME!
	80	elif not bool(obj):
	81	return False
	82	tname = obj.__class__.__name__
	83	return not (tname[:2] == 'c_' or tname == 'Structure' \
	84	or tname == 'POINTER') and not isinstance(obj,int)
	85
	86	def _init(self, target = None, parent = None):
	87	"""
	88	Custom initialize() for C structs, adds safely accessable member functionality.
	89
	90	:param target: set the object which receive the added methods. Useful when manipulating
	91	pointers, to skip the intermediate 'contents' deferencing.
	92	"""
	93	if not target:
	94	target = self
	95
	96	dirself = dir(self)
	97	for m in dirself:
	98
	99	if m.startswith("_"):
	100	continue
	101
	102	if m.startswith('mNum'):
	103	if 'm' + m[4:] in dirself:
	104	continue # will be processed later on
	105	else:
	106	name = m[1:].lower()
	107
	108	obj = getattr(self, m)
	109	setattr(target, name, obj)
	110	continue
	111
	112	if m == 'mName':
	113	obj = self.mName
	114	target.name = str(obj.data.decode("utf-8"))
	115	target.__class__.__repr__ = lambda x: str(x.__class__) + "(" + x.name + ")"
	116	target.__class__.__str__ = lambda x: x.name
	117	continue
	118
	119	name = m[1:].lower()
	120
	121	obj = getattr(self, m)
	122
	123	# Create tuples
	124	if isinstance(obj, assimp_structs_as_tuple):
	125	setattr(target, name, make_tuple(obj))
	126	logger.debug(str(self) + ": Added array " + str(getattr(target, name)) + " as self." + name.lower())
	127	continue
	128
	129	if m.startswith('m'):
	130
	131	if name == "parent":
	132	setattr(target, name, parent)
	133	logger.debug("Added a parent as self." + name)
	134	continue
	135
	136	if helper.hasattr_silent(self, 'mNum' + m[1:]):
	137
	138	length = getattr(self, 'mNum' + m[1:])
	139
	140	# -> special case: properties are
	141	# stored as a dict.
	142	if m == 'mProperties':
	143	setattr(target, name, _get_properties(obj, length))
	144	continue
	145
	146
	147	if not length: # empty!
	148	setattr(target, name, [])
	149	logger.debug(str(self) + ": " + name + " is an empty list.")
	150	continue
	151
	152
	153	try:
	154	if obj._type_ in assimp_structs_as_tuple:
	155	setattr(target, name, numpy.array([make_tuple(obj[i]) for i in range(length)], dtype=numpy.float32))
	156
	157	logger.debug(str(self) + ": Added an array of numpy arrays (type "+ str(type(obj)) + ") as self." + name)
	158
	159	else:
	160	setattr(target, name, [obj[i] for i in range(length)]) #TODO: maybe not necessary to recreate an array?
	161
	162	logger.debug(str(self) + ": Added list of " + str(obj) + " " + name + " as self." + name + " (type: " + str(type(obj)) + ")")
	163
	164	# initialize array elements
	165	try:
	166	init = assimp_struct_inits[type(obj[0])]
	167	except KeyError:
	168	if _is_init_type(obj[0]):
	169	for e in getattr(target, name):
	170	call_init(e, target)
	171	else:
	172	for e in getattr(target, name):
	173	init(e)
	174
	175
	176	except IndexError:
	177	logger.error("in " + str(self) +" : mismatch between mNum" + name + " and the actual amount of data in m" + name + ". This may be due to version mismatch between libassimp and pyassimp. Quitting now.")
	178	sys.exit(1)
	179
	180	except ValueError as e:
	181
	182	logger.error("In " + str(self) + "->" + name + ": " + str(e) + ". Quitting now.")
	183	if "setting an array element with a sequence" in str(e):
	184	logger.error("Note that pyassimp does not currently "
	185	"support meshes with mixed triangles "
	186	"and quads. Try to load your mesh with"
	187	" a post-processing to triangulate your"
	188	" faces.")
	189	sys.exit(1)
	190
	191
	192	else: # starts with 'm' but not iterable
	193
	194	setattr(target, name, obj)
	195	logger.debug("Added " + name + " as self." + name + " (type: " + str(type(obj)) + ")")
	196
	197	if _is_init_type(obj):
	198	call_init(obj, target)
	199
	200
	201
	202
	203	if isinstance(self, structs.Mesh):
	204	_finalize_mesh(self, target)
	205
	206	if isinstance(self, structs.Texture):
	207	_finalize_texture(self, target)
	208
	209
	210	return self
	211
	212	class AssimpLib(object):
	213	"""
	214	Assimp-Singleton
	215	"""
	216	load, release, dll = helper.search_library()
	217
	218	#the loader as singleton
	219	_assimp_lib = AssimpLib()
	220
	221	def pythonize_assimp(type, obj, scene):
	222	""" This method modify the Assimp data structures
	223	to make them easier to work with in Python.
	224
	225	Supported operations:
	226	- MESH: replace a list of mesh IDs by reference to these meshes
	227	- ADDTRANSFORMATION: add a reference to an object's transformation taken from their associated node.
	228
	229	:param type: the type of modification to operate (cf above)
	230	:param obj: the input object to modify
	231	:param scene: a reference to the whole scene
	232	"""
	233
	234	if type == "MESH":
	235	meshes = []
	236	for i in obj:
	237	meshes.append(scene.meshes[i])
	238	return meshes
	239
	240	if type == "ADDTRANSFORMATION":
	241
	242	def getnode(node, name):
	243	if node.name == name: return node
	244	for child in node.children:
	245	n = getnode(child, name)
	246	if n: return n
	247
	248	node = getnode(scene.rootnode, obj.name)
	249	if not node:
	250	raise AssimpError("Object " + str(obj) + " has no associated node!")
	251	setattr(obj, "transformation", node.transformation)
	252
	253
	254	def recur_pythonize(node, scene):
	255	""" Recursively call pythonize_assimp on
	256	nodes tree to apply several post-processing to
	257	pythonize the assimp datastructures.
	258	"""
	259
	260	node.meshes = pythonize_assimp("MESH", node.meshes, scene)
	261
	262	for mesh in node.meshes:
	263	mesh.material = scene.materials[mesh.materialindex]
	264
	265	for cam in scene.cameras:
	266	pythonize_assimp("ADDTRANSFORMATION", cam, scene)
	267
	268	#for light in scene.lights:
	269	# pythonize_assimp("ADDTRANSFORMATION", light, scene)
	270
	271	for c in node.children:
	272	recur_pythonize(c, scene)
	273
	274
	275	def load(filename, processing=0):
	276	"""
	277	Loads the model with some specific processing parameters.
	278
	279	filename - file to load model from
	280	processing - processing parameters
	281
	282	result Scene-object with model-data
	283
	284	throws AssimpError - could not open file
	285	"""
	286	#read pure data
	287	#from ctypes import c_char_p, c_uint
	288	#model = _assimp_lib.load(c_char_p(filename), c_uint(processing))
	289	model = _assimp_lib.load(filename.encode("ascii"), processing)
	290	if not model:
	291	#Uhhh, something went wrong!
	292	raise AssimpError("could not import file: %s" % filename)
	293
	294	scene = _init(model.contents)
	295
	296	recur_pythonize(scene.rootnode, scene)
	297
	298	return scene
	299
	300	def release(scene):
	301	from ctypes import pointer
	302	_assimp_lib.release(pointer(scene))
	303
	304	def _finalize_texture(tex, target):
	305	setattr(target, "achformathint", tex.achFormatHint)
	306	data = numpy.array([make_tuple(getattr(tex, "pcData")[i]) for i in range(tex.mWidth * tex.mHeight)])
	307	setattr(target, "data", data)
	308
	309	def _finalize_mesh(mesh, target):
	310	""" Building of meshes is a bit specific.
	311
	312	We override here the various datasets that can
	313	not be process as regular fields.
	314
	315	For instance, the length of the normals array is
	316	mNumVertices (no mNumNormals is available)
	317	"""
	318	nb_vertices = getattr(mesh, "mNumVertices")
	319
	320	def fill(name):
	321	mAttr = getattr(mesh, name)
	322	if mAttr:
	323	data = numpy.array([make_tuple(getattr(mesh, name)[i]) for i in range(nb_vertices)], dtype=numpy.float32)
	324	setattr(target, name[1:].lower(), data)
	325	else:
	326	setattr(target, name[1:].lower(), numpy.array([], dtype="float32"))
	327
	328	def fillarray(name):
	329	mAttr = getattr(mesh, name)
	330
	331	data = []
	332	for index, mSubAttr in enumerate(mAttr):
	333	if mSubAttr:
	334	data.append([make_tuple(getattr(mesh, name)[index][i]) for i in range(nb_vertices)])
	335
	336	setattr(target, name[1:].lower(), numpy.array(data, dtype=numpy.float32))
	337
	338	fill("mNormals")
	339	fill("mTangents")
	340	fill("mBitangents")
	341
	342	fillarray("mColors")
	343	fillarray("mTextureCoords")
	344
	345	# prepare faces
	346	faces = numpy.array([f.indices for f in target.faces], dtype=numpy.int32)
	347	setattr(target, 'faces', faces)
	348
	349
	350	class PropertyGetter(dict):
	351	def __getitem__(self, key):
	352	semantic = 0
	353	if isinstance(key, tuple):
	354	key, semantic = key
	355
	356	return dict.__getitem__(self, (key, semantic))
	357
	358	def keys(self):
	359	for k in dict.keys(self):
	360	yield k[0]
	361
	362	def __iter__(self):
	363	return self.keys()
	364
	365	def items(self):
	366	for k, v in dict.items(self):
	367	yield k[0], v
	368
	369
	370	def _get_properties(properties, length):
	371	"""
	372	Convenience Function to get the material properties as a dict
	373	and values in a python format.
	374	"""
	375	result = {}
	376	#read all properties
	377	for p in [properties[i] for i in range(length)]:
	378	#the name
	379	p = p.contents
	380	key = (str(p.mKey.data.decode("utf-8")).split('.')[1], p.mSemantic)
	381
	382	#the data
	383	from ctypes import POINTER, cast, c_int, c_float, sizeof
	384	if p.mType == 1:
	385	arr = cast(p.mData, POINTER(c_float * int(p.mDataLength/sizeof(c_float)) )).contents
	386	value = [x for x in arr]
	387	elif p.mType == 3: #string can't be an array
	388	value = cast(p.mData, POINTER(structs.MaterialPropertyString)).contents.data.decode("utf-8")
	389	elif p.mType == 4:
	390	arr = cast(p.mData, POINTER(c_int * int(p.mDataLength/sizeof(c_int)) )).contents
	391	value = [x for x in arr]
	392	else:
	393	value = p.mData[:p.mDataLength]
	394
	395	if len(value) == 1:
	396	[value] = value
	397
	398	result[key] = value
	399
	400	return PropertyGetter(result)
	401
	402	def decompose_matrix(matrix):
	403	if not isinstance(matrix, structs.Matrix4x4):
	404	raise AssimpError("pyassimp.decompose_matrix failed: Not a Matrix4x4!")
	405
	406	scaling = structs.Vector3D()
	407	rotation = structs.Quaternion()
	408	position = structs.Vector3D()
	409
	410	from ctypes import byref, pointer
	411	_assimp_lib.dll.aiDecomposeMatrix(pointer(matrix), byref(scaling), byref(rotation), byref(position))
	412	return scaling._init(), rotation._init(), position._init()

+68

-12

port/PyAssimp/pyassimp/helper.py less more

5	5
6	6	import os
7	7	import ctypes
8		import structs
	8	from ctypes import POINTER
9	9	import operator
	10	import numpy
	11	from numpy import linalg
10	12
11		from errors import AssimpError
12		from ctypes import POINTER
	13	import logging;logger = logging.getLogger("pyassimp")
	14
	15	from .errors import AssimpError
13	16
14	17	additional_dirs, ext_whitelist = [],[]
15	18
16	19	# populate search directories and lists of allowed file extensions
17	20	# depending on the platform we're running on.
18	21	if os.name=='posix':
	22	additional_dirs.append('/usr/lib/')
19	23	additional_dirs.append('/usr/local/lib/')
20	24
21	25	# note - this won't catch libassimp.so.N.n, but
22	26	# currently there's always a symlink called
23	27	# libassimp.so in /usr/local/lib.
24	28	ext_whitelist.append('.so')
	29	# libassimp.dylib in /usr/local/lib
	30	ext_whitelist.append('.dylib')
25	31
26	32	elif os.name=='nt':
27	33	ext_whitelist.append('.dll')
28
29		print(additional_dirs)
	34	path_dirs = os.environ['PATH'].split(';')
	35	for dir_candidate in path_dirs:
	36	if 'assimp' in dir_candidate.lower():
	37	additional_dirs.append(dir_candidate)
	38
	39	#print(additional_dirs)
30	40	def vec2tuple(x):
31	41	""" Converts a VECTOR3D to a Tuple """
32	42	return (x.x, x.y, x.z)
	43
	44	def transform(vector3, matrix4x4):
	45	""" Apply a transformation matrix on a 3D vector.
	46
	47	:param vector3: a numpy array with 3 elements
	48	:param matrix4x4: a numpy 4x4 matrix
	49	"""
	50	return numpy.dot(matrix4x4, numpy.append(vector3, 1.))
	51
	52
	53	def get_bounding_box(scene):
	54	bb_min = [1e10, 1e10, 1e10] # x,y,z
	55	bb_max = [-1e10, -1e10, -1e10] # x,y,z
	56	return get_bounding_box_for_node(scene.rootnode, bb_min, bb_max, linalg.inv(scene.rootnode.transformation))
	57
	58	def get_bounding_box_for_node(node, bb_min, bb_max, transformation):
	59
	60	transformation = numpy.dot(transformation, node.transformation)
	61	for mesh in node.meshes:
	62	for v in mesh.vertices:
	63	v = transform(v, transformation)
	64	bb_min[0] = min(bb_min[0], v[0])
	65	bb_min[1] = min(bb_min[1], v[1])
	66	bb_min[2] = min(bb_min[2], v[2])
	67	bb_max[0] = max(bb_max[0], v[0])
	68	bb_max[1] = max(bb_max[1], v[1])
	69	bb_max[2] = max(bb_max[2], v[2])
	70
	71
	72	for child in node.children:
	73	bb_min, bb_max = get_bounding_box_for_node(child, bb_min, bb_max, transformation)
	74
	75	return bb_min, bb_max
	76
33	77
34	78
35	79	def try_load_functions(library,dll,candidates):

53	97	pass
54	98	else:
55	99	#Library found!
56		load.restype = POINTER(structs.Scene)
	100	from .structs import Scene
	101	load.restype = POINTER(Scene)
57	102
58	103	candidates.append((library, load, release, dll))
59	104

87	132	continue
88	133
89	134	library = os.path.join(curfolder, filename)
90		print 'Try ',library
	135	logger.debug('Try ' + library)
91	136	try:
92	137	dll = ctypes.cdll.LoadLibrary(library)
93		except:
	138	except Exception as e:
	139	logger.warning(str(e))
94	140	# OK, this except is evil. But different OSs will throw different
95	141	# errors. So just ignore any errors.
96	142	continue

99	145
100	146	if not candidates:
101	147	# no library found
102		raise AssimpError, "assimp library not found"
	148	raise AssimpError("assimp library not found")
103	149	else:
104	150	# get the newest library
105	151	candidates = map(lambda x: (os.lstat(x[0])[-2], x), candidates)
106	152	res = max(candidates, key=operator.itemgetter(0))[1]
107		print 'Taking ',res[0]
	153	logger.debug('Using assimp library located at ' + res[0])
108	154
109	155	# XXX: if there are 1000 dll/so files containing 'assimp'
110	156	# in their name, do we have all of them in our address

113	159	# XXX: take version postfix of the .so on linux?
114	160	return res[1:]
115	161
116
117
	162	def hasattr_silent(object, name):
	163	"""
	164	Calls hasttr() with the given parameters and preserves the legacy (pre-Python 3.2)
	165	functionality of silently catching exceptions.
	166
	167	Returns the result of hasatter() or False if an exception was raised.
	168	"""
	169
	170	try:
	171	return hasattr(object, name)
	172	except:
	173	return False

+529

-0

port/PyAssimp/pyassimp/postprocess.py less more

	0	# <hr>Calculates the tangents and bitangents for the imported meshes.
	1	#
	2	# Does nothing if a mesh does not have normals. You might want this post
	3	# processing step to be executed if you plan to use tangent space calculations
	4	# such as normal mapping applied to the meshes. There's a config setting,
	5	# <tt>#AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE<tt>, which allows you to specify
	6	# a maximum smoothing angle for the algorithm. However, usually you'll
	7	# want to leave it at the default value.
	8	#
	9	aiProcess_CalcTangentSpace = 0x1
	10
	11	## <hr>Identifies and joins identical vertex data sets within all
	12	# imported meshes.
	13	#
	14	# After this step is run, each mesh contains unique vertices,
	15	# so a vertex may be used by multiple faces. You usually want
	16	# to use this post processing step. If your application deals with
	17	# indexed geometry, this step is compulsory or you'll just waste rendering
	18	# time. <b>If this flag is not specified<b>, no vertices are referenced by
	19	# more than one face and <b>no index buffer is required<b> for rendering.
	20	#
	21	aiProcess_JoinIdenticalVertices = 0x2
	22
	23	## <hr>Converts all the imported data to a left-handed coordinate space.
	24	#
	25	# By default the data is returned in a right-handed coordinate space (which
	26	# OpenGL prefers). In this space, +X points to the right,
	27	# +Z points towards the viewer, and +Y points upwards. In the DirectX
	28	# coordinate space +X points to the right, +Y points upwards, and +Z points
	29	# away from the viewer.
	30	#
	31	# You'll probably want to consider this flag if you use Direct3D for
	32	# rendering. The #aiProcess_ConvertToLeftHanded flag supersedes this
	33	# setting and bundles all conversions typically required for D3D-based
	34	# applications.
	35	#
	36	aiProcess_MakeLeftHanded = 0x4
	37
	38	## <hr>Triangulates all faces of all meshes.
	39	#
	40	# By default the imported mesh data might contain faces with more than 3
	41	# indices. For rendering you'll usually want all faces to be triangles.
	42	# This post processing step splits up faces with more than 3 indices into
	43	# triangles. Line and point primitives are #not# modified! If you want
	44	# 'triangles only' with no other kinds of primitives, try the following
	45	# solution:
	46	# <ul>
	47	# <li>Specify both #aiProcess_Triangulate and #aiProcess_SortByPType <li>
	48	# <li>Ignore all point and line meshes when you process assimp's output<li>
	49	# <ul>
	50	#
	51	aiProcess_Triangulate = 0x8
	52
	53	## <hr>Removes some parts of the data structure (animations, materials,
	54	# light sources, cameras, textures, vertex components).
	55	#
	56	# The components to be removed are specified in a separate
	57	# configuration option, <tt>#AI_CONFIG_PP_RVC_FLAGS<tt>. This is quite useful
	58	# if you don't need all parts of the output structure. Vertex colors
	59	# are rarely used today for example... Calling this step to remove unneeded
	60	# data from the pipeline as early as possible results in increased
	61	# performance and a more optimized output data structure.
	62	# This step is also useful if you want to force Assimp to recompute
	63	# normals or tangents. The corresponding steps don't recompute them if
	64	# they're already there (loaded from the source asset). By using this
	65	# step you can make sure they are NOT there.
	66	#
	67	# This flag is a poor one, mainly because its purpose is usually
	68	# misunderstood. Consider the following case: a 3D model has been exported
	69	# from a CAD app, and it has per-face vertex colors. Vertex positions can't be
	70	# shared, thus the #aiProcess_JoinIdenticalVertices step fails to
	71	# optimize the data because of these nasty little vertex colors.
	72	# Most apps don't even process them, so it's all for nothing. By using
	73	# this step, unneeded components are excluded as early as possible
	74	# thus opening more room for internal optimizations.
	75	#
	76	aiProcess_RemoveComponent = 0x10
	77
	78	## <hr>Generates normals for all faces of all meshes.
	79	#
	80	# This is ignored if normals are already there at the time this flag
	81	# is evaluated. Model importers try to load them from the source file, so
	82	# they're usually already there. Face normals are shared between all points
	83	# of a single face, so a single point can have multiple normals, which
	84	# forces the library to duplicate vertices in some cases.
	85	# #aiProcess_JoinIdenticalVertices is #senseless# then.
	86	#
	87	# This flag may not be specified together with #aiProcess_GenSmoothNormals.
	88	#
	89	aiProcess_GenNormals = 0x20
	90
	91	## <hr>Generates smooth normals for all vertices in the mesh.
	92	#
	93	# This is ignored if normals are already there at the time this flag
	94	# is evaluated. Model importers try to load them from the source file, so
	95	# they're usually already there.
	96	#
	97	# This flag may not be specified together with
	98	# #aiProcess_GenNormals. There's a configuration option,
	99	# <tt>#AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE<tt> which allows you to specify
	100	# an angle maximum for the normal smoothing algorithm. Normals exceeding
	101	# this limit are not smoothed, resulting in a 'hard' seam between two faces.
	102	# Using a decent angle here (e.g. 80 degrees) results in very good visual
	103	# appearance.
	104	#
	105	aiProcess_GenSmoothNormals = 0x40
	106
	107	## <hr>Splits large meshes into smaller sub-meshes.
	108	#
	109	# This is quite useful for real-time rendering, where the number of triangles
	110	# which can be maximally processed in a single draw-call is limited
	111	# by the video driverhardware. The maximum vertex buffer is usually limited
	112	# too. Both requirements can be met with this step: you may specify both a
	113	# triangle and vertex limit for a single mesh.
	114	#
	115	# The split limits can (and should!) be set through the
	116	# <tt>#AI_CONFIG_PP_SLM_VERTEX_LIMIT<tt> and <tt>#AI_CONFIG_PP_SLM_TRIANGLE_LIMIT<tt>
	117	# settings. The default values are <tt>#AI_SLM_DEFAULT_MAX_VERTICES<tt> and
	118	# <tt>#AI_SLM_DEFAULT_MAX_TRIANGLES<tt>.
	119	#
	120	# Note that splitting is generally a time-consuming task, but only if there's
	121	# something to split. The use of this step is recommended for most users.
	122	#
	123	aiProcess_SplitLargeMeshes = 0x80
	124
	125	## <hr>Removes the node graph and pre-transforms all vertices with
	126	# the local transformation matrices of their nodes.
	127	#
	128	# The output scene still contains nodes, however there is only a
	129	# root node with children, each one referencing only one mesh,
	130	# and each mesh referencing one material. For rendering, you can
	131	# simply render all meshes in order - you don't need to pay
	132	# attention to local transformations and the node hierarchy.
	133	# Animations are removed during this step.
	134	# This step is intended for applications without a scenegraph.
	135	# The step CAN cause some problems: if e.g. a mesh of the asset
	136	# contains normals and another, using the same material index, does not,
	137	# they will be brought together, but the first meshes's part of
	138	# the normal list is zeroed. However, these artifacts are rare.
	139	# @note The <tt>#AI_CONFIG_PP_PTV_NORMALIZE<tt> configuration property
	140	# can be set to normalize the scene's spatial dimension to the -1...1
	141	# range.
	142	#
	143	aiProcess_PreTransformVertices = 0x100
	144
	145	## <hr>Limits the number of bones simultaneously affecting a single vertex
	146	# to a maximum value.
	147	#
	148	# If any vertex is affected by more than the maximum number of bones, the least
	149	# important vertex weights are removed and the remaining vertex weights are
	150	# renormalized so that the weights still sum up to 1.
	151	# The default bone weight limit is 4 (defined as <tt>#AI_LMW_MAX_WEIGHTS<tt> in
	152	# config.h), but you can use the <tt>#AI_CONFIG_PP_LBW_MAX_WEIGHTS<tt> setting to
	153	# supply your own limit to the post processing step.
	154	#
	155	# If you intend to perform the skinning in hardware, this post processing
	156	# step might be of interest to you.
	157	#
	158	aiProcess_LimitBoneWeights = 0x200
	159
	160	## <hr>Validates the imported scene data structure.
	161	# This makes sure that all indices are valid, all animations and
	162	# bones are linked correctly, all material references are correct .. etc.
	163	#
	164	# It is recommended that you capture Assimp's log output if you use this flag,
	165	# so you can easily find out what's wrong if a file fails the
	166	# validation. The validator is quite strict and will find #all#
	167	# inconsistencies in the data structure... It is recommended that plugin
	168	# developers use it to debug their loaders. There are two types of
	169	# validation failures:
	170	# <ul>
	171	# <li>Error: There's something wrong with the imported data. Further
	172	# postprocessing is not possible and the data is not usable at all.
	173	# The import fails. #Importer::GetErrorString() or #aiGetErrorString()
	174	# carry the error message around.<li>
	175	# <li>Warning: There are some minor issues (e.g. 1000000 animation
	176	# keyframes with the same time), but further postprocessing and use
	177	# of the data structure is still safe. Warning details are written
	178	# to the log file, <tt>#AI_SCENE_FLAGS_VALIDATION_WARNING<tt> is set
	179	# in #aiScene::mFlags<li>
	180	# <ul>
	181	#
	182	# This post-processing step is not time-consuming. Its use is not
	183	# compulsory, but recommended.
	184	#
	185	aiProcess_ValidateDataStructure = 0x400
	186
	187	## <hr>Reorders triangles for better vertex cache locality.
	188	#
	189	# The step tries to improve the ACMR (average post-transform vertex cache
	190	# miss ratio) for all meshes. The implementation runs in O(n) and is
	191	# roughly based on the 'tipsify' algorithm (see <a href="
	192	# http:www.cs.princeton.edugfxpubsSander_2007_%3ETRtipsy.pdf">this
	193	# paper<a>).
	194	#
	195	# If you intend to render huge models in hardware, this step might
	196	# be of interest to you. The <tt>#AI_CONFIG_PP_ICL_PTCACHE_SIZE<tt>config
	197	# setting can be used to fine-tune the cache optimization.
	198	#
	199	aiProcess_ImproveCacheLocality = 0x800
	200
	201	## <hr>Searches for redundantunreferenced materials and removes them.
	202	#
	203	# This is especially useful in combination with the
	204	# #aiProcess_PretransformVertices and #aiProcess_OptimizeMeshes flags.
	205	# Both join small meshes with equal characteristics, but they can't do
	206	# their work if two meshes have different materials. Because several
	207	# material settings are lost during Assimp's import filters,
	208	# (and because many exporters don't check for redundant materials), huge
	209	# models often have materials which are are defined several times with
	210	# exactly the same settings.
	211	#
	212	# Several material settings not contributing to the final appearance of
	213	# a surface are ignored in all comparisons (e.g. the material name).
	214	# So, if you're passing additional information through the
	215	# content pipeline (probably using #magic# material names), don't
	216	# specify this flag. Alternatively take a look at the
	217	# <tt>#AI_CONFIG_PP_RRM_EXCLUDE_LIST<tt> setting.
	218	#
	219	aiProcess_RemoveRedundantMaterials = 0x1000
	220
	221	## <hr>This step tries to determine which meshes have normal vectors
	222	# that are facing inwards and inverts them.
	223	#
	224	# The algorithm is simple but effective:
	225	# the bounding box of all vertices + their normals is compared against
	226	# the volume of the bounding box of all vertices without their normals.
	227	# This works well for most objects, problems might occur with planar
	228	# surfaces. However, the step tries to filter such cases.
	229	# The step inverts all in-facing normals. Generally it is recommended
	230	# to enable this step, although the result is not always correct.
	231	#
	232	aiProcess_FixInfacingNormals = 0x2000
	233
	234	## <hr>This step splits meshes with more than one primitive type in
	235	# homogeneous sub-meshes.
	236	#
	237	# The step is executed after the triangulation step. After the step
	238	# returns, just one bit is set in aiMesh::mPrimitiveTypes. This is
	239	# especially useful for real-time rendering where point and line
	240	# primitives are often ignored or rendered separately.
	241	# You can use the <tt>#AI_CONFIG_PP_SBP_REMOVE<tt> option to specify which
	242	# primitive types you need. This can be used to easily exclude
	243	# lines and points, which are rarely used, from the import.
	244	#
	245	aiProcess_SortByPType = 0x8000
	246
	247	## <hr>This step searches all meshes for degenerate primitives and
	248	# converts them to proper lines or points.
	249	#
	250	# A face is 'degenerate' if one or more of its points are identical.
	251	# To have the degenerate stuff not only detected and collapsed but
	252	# removed, try one of the following procedures:
	253	# <br><b>1.<b> (if you support lines and points for rendering but don't
	254	# want the degenerates)<br>
	255	# <ul>
	256	# <li>Specify the #aiProcess_FindDegenerates flag.
	257	# <li>
	258	# <li>Set the <tt>AI_CONFIG_PP_FD_REMOVE<tt> option to 1. This will
	259	# cause the step to remove degenerate triangles from the import
	260	# as soon as they're detected. They won't pass any further
	261	# pipeline steps.
	262	# <li>
	263	# <ul>
	264	# <br><b>2.<b>(if you don't support lines and points at all)<br>
	265	# <ul>
	266	# <li>Specify the #aiProcess_FindDegenerates flag.
	267	# <li>
	268	# <li>Specify the #aiProcess_SortByPType flag. This moves line and
	269	# point primitives to separate meshes.
	270	# <li>
	271	# <li>Set the <tt>AI_CONFIG_PP_SBP_REMOVE<tt> option to
	272	# @code aiPrimitiveType_POINTS \| aiPrimitiveType_LINES
	273	# @endcode to cause SortByPType to reject point
	274	# and line meshes from the scene.
	275	# <li>
	276	# <ul>
	277	# @note Degenerate polygons are not necessarily evil and that's why
	278	# they're not removed by default. There are several file formats which
	279	# don't support lines or points, and some exporters bypass the
	280	# format specification and write them as degenerate triangles instead.
	281	#
	282	aiProcess_FindDegenerates = 0x10000
	283
	284	## <hr>This step searches all meshes for invalid data, such as zeroed
	285	# normal vectors or invalid UV coords and removesfixes them. This is
	286	# intended to get rid of some common exporter errors.
	287	#
	288	# This is especially useful for normals. If they are invalid, and
	289	# the step recognizes this, they will be removed and can later
	290	# be recomputed, i.e. by the #aiProcess_GenSmoothNormals flag.<br>
	291	# The step will also remove meshes that are infinitely small and reduce
	292	# animation tracks consisting of hundreds if redundant keys to a single
	293	# key. The <tt>AI_CONFIG_PP_FID_ANIM_ACCURACY<tt> config property decides
	294	# the accuracy of the check for duplicate animation tracks.
	295	#
	296	aiProcess_FindInvalidData = 0x20000
	297
	298	## <hr>This step converts non-UV mappings (such as spherical or
	299	# cylindrical mapping) to proper texture coordinate channels.
	300	#
	301	# Most applications will support UV mapping only, so you will
	302	# probably want to specify this step in every case. Note that Assimp is not
	303	# always able to match the original mapping implementation of the
	304	# 3D app which produced a model perfectly. It's always better to let the
	305	# modelling app compute the UV channels - 3ds max, Maya, Blender,
	306	# LightWave, and Modo do this for example.
	307	#
	308	# @note If this step is not requested, you'll need to process the
	309	# <tt>#AI_MATKEY_MAPPING<tt> material property in order to display all assets
	310	# properly.
	311	#
	312	aiProcess_GenUVCoords = 0x40000
	313
	314	## <hr>This step applies per-texture UV transformations and bakes
	315	# them into stand-alone vtexture coordinate channels.
	316	#
	317	# UV transformations are specified per-texture - see the
	318	# <tt>#AI_MATKEY_UVTRANSFORM<tt> material key for more information.
	319	# This step processes all textures with
	320	# transformed input UV coordinates and generates a new (pre-transformed) UV channel
	321	# which replaces the old channel. Most applications won't support UV
	322	# transformations, so you will probably want to specify this step.
	323	#
	324	# @note UV transformations are usually implemented in real-time apps by
	325	# transforming texture coordinates at vertex shader stage with a 3x3
	326	# (homogenous) transformation matrix.
	327	#
	328	aiProcess_TransformUVCoords = 0x80000
	329
	330	## <hr>This step searches for duplicate meshes and replaces them
	331	# with references to the first mesh.
	332	#
	333	# This step takes a while, so don't use it if speed is a concern.
	334	# Its main purpose is to workaround the fact that many export
	335	# file formats don't support instanced meshes, so exporters need to
	336	# duplicate meshes. This step removes the duplicates again. Please
	337	# note that Assimp does not currently support per-node material
	338	# assignment to meshes, which means that identical meshes with
	339	# different materials are currently #not# joined, although this is
	340	# planned for future versions.
	341	#
	342	aiProcess_FindInstances = 0x100000
	343
	344	## <hr>A postprocessing step to reduce the number of meshes.
	345	#
	346	# This will, in fact, reduce the number of draw calls.
	347	#
	348	# This is a very effective optimization and is recommended to be used
	349	# together with #aiProcess_OptimizeGraph, if possible. The flag is fully
	350	# compatible with both #aiProcess_SplitLargeMeshes and #aiProcess_SortByPType.
	351	#
	352	aiProcess_OptimizeMeshes = 0x200000
	353
	354
	355	## <hr>A postprocessing step to optimize the scene hierarchy.
	356	#
	357	# Nodes without animations, bones, lights or cameras assigned are
	358	# collapsed and joined.
	359	#
	360	# Node names can be lost during this step. If you use special 'tag nodes'
	361	# to pass additional information through your content pipeline, use the
	362	# <tt>#AI_CONFIG_PP_OG_EXCLUDE_LIST<tt> setting to specify a list of node
	363	# names you want to be kept. Nodes matching one of the names in this list won't
	364	# be touched or modified.
	365	#
	366	# Use this flag with caution. Most simple files will be collapsed to a
	367	# single node, so complex hierarchies are usually completely lost. This is not
	368	# useful for editor environments, but probably a very effective
	369	# optimization if you just want to get the model data, convert it to your
	370	# own format, and render it as fast as possible.
	371	#
	372	# This flag is designed to be used with #aiProcess_OptimizeMeshes for best
	373	# results.
	374	#
	375	# @note 'Crappy' scenes with thousands of extremely small meshes packed
	376	# in deeply nested nodes exist for almost all file formats.
	377	# #aiProcess_OptimizeMeshes in combination with #aiProcess_OptimizeGraph
	378	# usually fixes them all and makes them renderable.
	379	#
	380	aiProcess_OptimizeGraph = 0x400000
	381
	382	## <hr>This step flips all UV coordinates along the y-axis and adjusts
	383	# material settings and bitangents accordingly.
	384	#
	385	# <b>Output UV coordinate system:<b>
	386	# @code
	387	# 0y\|0y ---------- 1x\|0y
	388	# \| \|
	389	# \| \|
	390	# \| \|
	391	# 0x\|1y ---------- 1x\|1y
	392	# @endcode
	393	#
	394	# You'll probably want to consider this flag if you use Direct3D for
	395	# rendering. The #aiProcess_ConvertToLeftHanded flag supersedes this
	396	# setting and bundles all conversions typically required for D3D-based
	397	# applications.
	398	#
	399	aiProcess_FlipUVs = 0x800000
	400
	401	## <hr>This step adjusts the output face winding order to be CW.
	402	#
	403	# The default face winding order is counter clockwise (CCW).
	404	#
	405	# <b>Output face order:<b>
	406	# @code
	407	# x2
	408	#
	409	# x0
	410	# x1
	411	# @endcode
	412	#
	413	aiProcess_FlipWindingOrder = 0x1000000
	414
	415	## <hr>This step splits meshes with many bones into sub-meshes so that each
	416	# su-bmesh has fewer or as many bones as a given limit.
	417	#
	418	aiProcess_SplitByBoneCount = 0x2000000
	419
	420	## <hr>This step removes bones losslessly or according to some threshold.
	421	#
	422	# In some cases (i.e. formats that require it) exporters are forced to
	423	# assign dummy bone weights to otherwise static meshes assigned to
	424	# animated meshes. Full, weight-based skinning is expensive while
	425	# animating nodes is extremely cheap, so this step is offered to clean up
	426	# the data in that regard.
	427	#
	428	# Use <tt>#AI_CONFIG_PP_DB_THRESHOLD<tt> to control this.
	429	# Use <tt>#AI_CONFIG_PP_DB_ALL_OR_NONE<tt> if you want bones removed if and
	430	# only if all bones within the scene qualify for removal.
	431	#
	432	aiProcess_Debone = 0x4000000
	433
	434	aiProcess_GenEntityMeshes = 0x100000
	435	aiProcess_OptimizeAnimations = 0x200000
	436	aiProcess_FixTexturePaths = 0x200000
	437
	438	## @def aiProcess_ConvertToLeftHanded
	439	# @brief Shortcut flag for Direct3D-based applications.
	440	#
	441	# Supersedes the #aiProcess_MakeLeftHanded and #aiProcess_FlipUVs and
	442	# #aiProcess_FlipWindingOrder flags.
	443	# The output data matches Direct3D's conventions: left-handed geometry, upper-left
	444	# origin for UV coordinates and finally clockwise face order, suitable for CCW culling.
	445	#
	446	# @deprecated
	447	#
	448	aiProcess_ConvertToLeftHanded = ( \
	449	aiProcess_MakeLeftHanded \| \
	450	aiProcess_FlipUVs \| \
	451	aiProcess_FlipWindingOrder \| \
	452	0 )
	453
	454
	455	## @def aiProcessPreset_TargetRealtimeUse_Fast
	456	# @brief Default postprocess configuration optimizing the data for real-time rendering.
	457	#
	458	# Applications would want to use this preset to load models on end-user PCs,
	459	# maybe for direct use in game.
	460	#
	461	# If you're using DirectX, don't forget to combine this value with
	462	# the #aiProcess_ConvertToLeftHanded step. If you don't support UV transformations
	463	# in your application apply the #aiProcess_TransformUVCoords step, too.
	464	# @note Please take the time to read the docs for the steps enabled by this preset.
	465	# Some of them offer further configurable properties, while some of them might not be of
	466	# use for you so it might be better to not specify them.
	467	#
	468	aiProcessPreset_TargetRealtime_Fast = ( \
	469	aiProcess_CalcTangentSpace \| \
	470	aiProcess_GenNormals \| \
	471	aiProcess_JoinIdenticalVertices \| \
	472	aiProcess_Triangulate \| \
	473	aiProcess_GenUVCoords \| \
	474	aiProcess_SortByPType \| \
	475	0 )
	476
	477	## @def aiProcessPreset_TargetRealtime_Quality
	478	# @brief Default postprocess configuration optimizing the data for real-time rendering.
	479	#
	480	# Unlike #aiProcessPreset_TargetRealtime_Fast, this configuration
	481	# performs some extra optimizations to improve rendering speed and
	482	# to minimize memory usage. It could be a good choice for a level editor
	483	# environment where import speed is not so important.
	484	#
	485	# If you're using DirectX, don't forget to combine this value with
	486	# the #aiProcess_ConvertToLeftHanded step. If you don't support UV transformations
	487	# in your application apply the #aiProcess_TransformUVCoords step, too.
	488	# @note Please take the time to read the docs for the steps enabled by this preset.
	489	# Some of them offer further configurable properties, while some of them might not be
	490	# of use for you so it might be better to not specify them.
	491	#
	492	aiProcessPreset_TargetRealtime_Quality = ( \
	493	aiProcess_CalcTangentSpace \| \
	494	aiProcess_GenSmoothNormals \| \
	495	aiProcess_JoinIdenticalVertices \| \
	496	aiProcess_ImproveCacheLocality \| \
	497	aiProcess_LimitBoneWeights \| \
	498	aiProcess_RemoveRedundantMaterials \| \
	499	aiProcess_SplitLargeMeshes \| \
	500	aiProcess_Triangulate \| \
	501	aiProcess_GenUVCoords \| \
	502	aiProcess_SortByPType \| \
	503	aiProcess_FindDegenerates \| \
	504	aiProcess_FindInvalidData \| \
	505	0 )
	506
	507	## @def aiProcessPreset_TargetRealtime_MaxQuality
	508	# @brief Default postprocess configuration optimizing the data for real-time rendering.
	509	#
	510	# This preset enables almost every optimization step to achieve perfectly
	511	# optimized data. It's your choice for level editor environments where import speed
	512	# is not important.
	513	#
	514	# If you're using DirectX, don't forget to combine this value with
	515	# the #aiProcess_ConvertToLeftHanded step. If you don't support UV transformations
	516	# in your application, apply the #aiProcess_TransformUVCoords step, too.
	517	# @note Please take the time to read the docs for the steps enabled by this preset.
	518	# Some of them offer further configurable properties, while some of them might not be
	519	# of use for you so it might be better to not specify them.
	520	#
	521	aiProcessPreset_TargetRealtime_MaxQuality = ( \
	522	aiProcessPreset_TargetRealtime_Quality \| \
	523	aiProcess_FindInstances \| \
	524	aiProcess_ValidateDataStructure \| \
	525	aiProcess_OptimizeMeshes \| \
	526	0 )
	527
	528

-276

~~port/PyAssimp/pyassimp/pyassimp.py~~ less more

0		#-- coding: UTF-8 --
1
2		"""
3		PyAssimp
4
5		This is the main-module of PyAssimp.
6		"""
7
8		import sys
9		if sys.version_info < (2,5):
10		raise 'pyassimp: need python 2.5 or newer'
11
12		import structs
13		import ctypes
14		import os
15		import helper
16		from errors import AssimpError
17
18		class aiArray:
19		"""
20		A python class to 'safely' access C arrays.
21		For m<Name> and mNum<Name> assimp class members.
22		"""
23		def __init__(self, instance, dataName, sizeName, i=None):
24		self.instance = instance
25		self.dataName = dataName
26		self.sizeName = sizeName
27		self.i = i
28		self.count = 0
29
30		def _GetSize(self):
31		return getattr(self.instance, self.sizeName)
32
33		def _GetData(self, index):
34		if self.i != None:
35		if not bool(getattr(self.instance, self.dataName)[self.i]):
36		return None
37		item = getattr(self.instance, self.dataName)[self.i][index]
38		else:
39		item = getattr(self.instance, self.dataName)[index]
40		if hasattr(item, 'contents'):
41		return item.contents._init()
42		elif hasattr(item, '_init'):
43		return item._init()
44		else:
45		return item
46
47		def next(self):
48		if self.count >= self._GetSize():
49		self.count = 0
50		raise StopIteration
51		else:
52		c = self.count
53		self.count += 1
54		return self._GetData(c)
55
56		def __getitem__(self, index):
57		if isinstance(index, slice):
58		indices = index.indices(len(self))
59		return [self.__getitem__(i) for i in range(*indices)]
60
61		if index < 0 or index >= self._GetSize():
62		raise IndexError("aiArray index out of range")
63		return self._GetData(index)
64
65		def __iter__(self):
66		return self
67
68		def __len__(self):
69		return int(self._GetSize())
70
71		def __str__(self):
72		return str([x for x in self])
73
74		def __repr__(self):
75		return str([x for x in self])
76
77		class aiTuple:
78		"""
79		A python class to 'safely' access C structs in a python tuple fashion.
80		For C structs like vectors, matrices, colors, ...
81		"""
82		def __init__(self, instance):
83		self.instance = instance
84		self.count = 0
85
86		def _GetSize(self):
87		return len(self.instance._fields_)
88
89		def _GetData(self, index):
90		return getattr(self.instance, self.instance._fields_[index][0])
91
92		def next(self):
93		if self.count >= self._GetSize():
94		self.count = 0
95		raise StopIteration
96		else:
97		c = self.count
98		self.count += 1
99		return self._GetData(c)
100
101		def __getitem__(self, index):
102		if isinstance(index, slice):
103		indices = index.indices(len(self))
104		return [self.__getitem__(i) for i in range(*indices)]
105
106		if index < 0 or index >= self._GetSize():
107		raise IndexError("aiTuple index out of range")
108		return self._GetData(index)
109
110		def __iter__(self):
111		return self
112
113		def __len__(self):
114		return int(self._GetSize())
115
116		def __str__(self):
117		return str([x for x in self])
118
119		def __repr__(self):
120		return str([x for x in self])
121
122		def _init(self):
123		"""
124		Custom initialize() for C structs, adds safely accessable member functionality.
125		"""
126		if hasattr(self, '_is_init'):
127		return self
128		self._is_init = True
129
130		if str(self.__class__.__name__) == "MaterialProperty":
131		self.mKey._init()
132
133		for m in self.__class__.__dict__.keys():
134		if m.startswith('mNum'):
135		name = m.split('mNum')[1]
136		if 'm'+name in self.__class__.__dict__.keys():
137		setattr(self.__class__, name.lower(), aiArray(self, 'm'+name , m))
138		if name.lower() == "vertices":
139		setattr(self.__class__, "normals", aiArray(self, 'mNormals' , m))
140		setattr(self.__class__, "tangents", aiArray(self, 'mTangents' , m))
141		setattr(self.__class__, "bitangets", aiArray(self, 'mBitangents' , m))
142		setattr(self.__class__, "colors", [aiArray(self, 'mColors' , m, o) for o in xrange(len(self.mColors))])
143		setattr(self.__class__, "texcoords", [aiArray(self, 'mTextureCoords' , m, o) for o in xrange(len(self.mColors))])
144
145		elif m == "x" or m == "a1" or m == "b": # Vector, matrix, quat, color
146		self._tuple = aiTuple(self)
147		setattr(self.__class__, '__getitem__', lambda x, y: x._tuple.__getitem__(y))
148		setattr(self.__class__, '__iter__', lambda x: x._tuple)
149		setattr(self.__class__, 'next', lambda x: x._tuple.next)
150		setattr(self.__class__, '__repr__', lambda x: str([c for c in x]))
151		break
152		elif m == "data": #String
153		setattr(self.__class__, '__repr__', lambda x: str(x.data))
154		setattr(self.__class__, '__str__', lambda x: str(x.data))
155		break
156
157		if hasattr(getattr(self, m), '_init'):
158		getattr(self, m)._init()
159
160		return self
161
162		"""
163		Python magic to add the _init() function to all C struct classes.
164		"""
165		for struct in dir(structs):
166		if not (struct.startswith('_') or struct.startswith('c_') or struct == "Structure" or struct == "POINTER") and not isinstance(getattr(structs, struct),int):
167		setattr(getattr(structs, struct), '_init', _init)
168
169
170		class AssimpLib(object):
171		"""
172		Assimp-Singleton
173		"""
174		load, release, dll = helper.search_library()
175
176		#the loader as singleton
177		_assimp_lib = AssimpLib()
178
179
180		def load(filename, processing=0):
181		"""
182		Loads the model with some specific processing parameters.
183
184		filename - file to load model from
185		processing - processing parameters
186
187		result Scene-object with model-data
188
189		throws AssimpError - could not open file
190		"""
191		#read pure data
192		model = _assimp_lib.load(filename, processing)
193		if not model:
194		#Uhhh, something went wrong!
195		raise AssimpError, ("could not import file: %s" % filename)
196
197		return model.contents._init()
198
199		def release(scene):
200		from ctypes import pointer
201		_assimp_lib.release(pointer(scene))
202
203		def aiGetMaterialFloatArray(material, key):
204		AI_SUCCESS = 0
205		from ctypes import byref, pointer, cast, c_float, POINTER, sizeof, c_uint
206		out = structs.Color4D()
207		max = c_uint(sizeof(structs.Color4D))
208		r=_assimp_lib.dll.aiGetMaterialFloatArray(pointer(material),
209		key[0],
210		key[1],
211		key[2],
212		byref(out),
213		byref(max))
214
215		if (r != AI_SUCCESS):
216		raise AssimpError("aiGetMaterialFloatArray failed!")
217
218		out._init()
219		return [out[i] for i in xrange(max.value)]
220
221		def aiGetMaterialString(material, key):
222		AI_SUCCESS = 0
223		from ctypes import byref, pointer, cast, c_float, POINTER, sizeof, c_uint
224		out = structs.String()
225		r=_assimp_lib.dll.aiGetMaterialString(pointer(material),
226		key[0],
227		key[1],
228		key[2],
229		byref(out))
230
231		if (r != AI_SUCCESS):
232		raise AssimpError("aiGetMaterialString failed!")
233
234		return str(out.data)
235
236		def GetMaterialProperties(material):
237		"""
238		Convenience Function to get the material properties as a dict
239		and values in a python format.
240		"""
241		result = {}
242		#read all properties
243		for p in material.properties:
244		#the name
245		key = p.mKey.data
246
247		#the data
248		from ctypes import POINTER, cast, c_int, c_float, sizeof
249		if p.mType == 1:
250		arr = cast(p.mData, POINTER(c_float*(p.mDataLength/sizeof(c_float)) )).contents
251		value = [x for x in arr]
252		elif p.mType == 3: #string can't be an array
253		value = cast(p.mData, POINTER(structs.String)).contents.data
254		elif p.mType == 4:
255		arr = cast(p.mData, POINTER(c_int*(p.mDataLength/sizeof(c_int)) )).contents
256		value = [x for x in arr]
257		else:
258		value = p.mData[:p.mDataLength]
259
260		result[key] = value
261
262		return result
263
264
265		def aiDecomposeMatrix(matrix):
266		if not isinstance(matrix, structs.Matrix4x4):
267		raise AssimpError("aiDecomposeMatrix failed: Not a aiMatrix4x4!")
268
269		scaling = structs.Vector3D()
270		rotation = structs.Quaternion()
271		position = structs.Vector3D()
272
273		from ctypes import byref, pointer
274		_assimp_lib.dll.aiDecomposeMatrix(pointer(matrix), byref(scaling), byref(rotation), byref(position))
275		return scaling._init(), rotation._init(), position._init()

+887

-412

port/PyAssimp/pyassimp/structs.py less more

0		#-- coding: UTF-8 --
1
2		from ctypes import POINTER, c_int, c_uint, c_char, c_float, Structure, c_char_p, c_double, c_ubyte, c_size_t
3
4
5		class Vector2D(Structure):
6		"""
7		See 'aiVector2D.h' for details.
8		"""
9
10
11		_fields_ = [
12		("x", c_float),("y", c_float),
13		]
14
15		class Texel(Structure):
16		"""
17		See 'aiTexture.h' for details.
18		"""
19
20		_fields_ = [
21		("b", c_ubyte),("g", c_ubyte),("r", c_ubyte),("a", c_ubyte),
22		]
23
24		class Plane(Structure):
25		"""
26		See 'aiTypes.h' for details.
27		"""
28
29		_fields_ = [
30		# Plane equation
31		("a", c_float),("b", c_float),("c", c_float),("d", c_float),
32		]
33
34		class Color3D(Structure):
35		"""
36		See 'aiTypes.h' for details.
37		"""
38
39		_fields_ = [
40		# Red, green and blue color values
41		("r", c_float),("g", c_float),("b", c_float),
42		]
43
44		class String(Structure):
45		"""
46		See 'aiTypes.h' for details.
47		"""
48
	0	#-- coding: UTF-8 --
	1
	2	from ctypes import POINTER, c_void_p, c_int, c_uint, c_char, c_float, Structure, c_char_p, c_double, c_ubyte, c_size_t, c_uint32
	3
	4
	5	class Vector2D(Structure):
	6	"""
	7	See 'aiVector2D.h' for details.
	8	"""
	9
	10
	11	_fields_ = [
	12	("x", c_float),("y", c_float),
	13	]
	14
	15	class Matrix3x3(Structure):
	16	"""
	17	See 'aiMatrix3x3.h' for details.
	18	"""
	19
	20
	21	_fields_ = [
	22	("a1", c_float),("a2", c_float),("a3", c_float),
	23	("b1", c_float),("b2", c_float),("b3", c_float),
	24	("c1", c_float),("c2", c_float),("c3", c_float),
	25	]
	26
	27	class Texel(Structure):
	28	"""
	29	See 'aiTexture.h' for details.
	30	"""
	31
	32	_fields_ = [
	33	("b", c_ubyte),("g", c_ubyte),("r", c_ubyte),("a", c_ubyte),
	34	]
	35
	36	class Color4D(Structure):
	37	"""
	38	See 'aiColor4D.h' for details.
	39	"""
	40
	41
	42	_fields_ = [
	43	# Red, green, blue and alpha color values
	44	("r", c_float),("g", c_float),("b", c_float),("a", c_float),
	45	]
	46
	47	class Plane(Structure):
	48	"""
	49	See 'aiTypes.h' for details.
	50	"""
	51
	52	_fields_ = [
	53	# Plane equation
	54	("a", c_float),("b", c_float),("c", c_float),("d", c_float),
	55	]
	56
	57	class Color3D(Structure):
	58	"""
	59	See 'aiTypes.h' for details.
	60	"""
	61
	62	_fields_ = [
	63	# Red, green and blue color values
	64	("r", c_float),("g", c_float),("b", c_float),
	65	]
	66
	67	class String(Structure):
	68	"""
	69	See 'aiTypes.h' for details.
	70	"""
	71
49	72	MAXLEN = 1024
50
51		_fields_ = [
52		#Binary length of the string excluding the terminal 0. This is NOT the# logical length of strings containing UTF-8 multibyte sequences! It's# the number of bytes from the beginning of the string to its end.#
53		("length", c_size_t),#String buffer. Size limit is MAXLEN#
54		("data", c_char*MAXLEN),
55		]
56
57		class MemoryInfo(Structure):
58		"""
59		See 'aiTypes.h' for details.
60		"""
61
62		_fields_ = [
63		#Storage allocated for texture data#
64		("textures", c_uint),#Storage allocated for material data#
65		("materials", c_uint),#Storage allocated for mesh data#
66		("meshes", c_uint),#Storage allocated for node data#
67		("nodes", c_uint),#Storage allocated for animation data#
68		("animations", c_uint),#Storage allocated for camera data#
69		("cameras", c_uint),#Storage allocated for light data#
70		("lights", c_uint),#Total storage allocated for the full import.#
71		("total", c_uint),
72		]
73
74		class Matrix3x3(Structure):
75		"""
76		See 'aiMatrix3x3.h' for details.
77		"""
78
79
80		_fields_ = [
81		("a1", c_float),("a2", c_float),("a3", c_float),
82		("b1", c_float),("b2", c_float),("b3", c_float),
83		("c1", c_float),("c2", c_float),("c3", c_float),
84		]
85
86		class Color4D(Structure):
87		"""
88		See 'aiColor4D.h' for details.
89		"""
90
91
92		_fields_ = [
93		# Red, green, blue and alpha color values
94		("r", c_float),("g", c_float),("b", c_float),("a", c_float),
95		]
96
97		class ExportFormatDesc(Structure):
98		"""
99		See 'export.h' for details.
100		"""
101
102		_fields_ = [
103		# a short string ID to uniquely identify the export format. Use this ID string to# specify which file format you want to export to when calling aiExportScene().# Example: "dae" or "obj"
104		("id", POINTER(c_char)),# A short description of the file format to present to users. Useful if you want# to allow the user to select an export format.
105		("description", POINTER(c_char)),# Recommended file extension for the exported file in lower case.
106		("fileExtension", POINTER(c_char)),
107		]
108
109		class Quaternion(Structure):
110		"""
111		See 'aiQuaternion.h' for details.
112		"""
113
114
115		_fields_ = [
116		# w,x,y,z components of the quaternion
117		("w", c_float),("x", c_float),("y", c_float),("z", c_float),
118		]
119
120		class Vector3D(Structure):
121		"""
122		See 'aiVector3D.h' for details.
123		"""
124
125
126		_fields_ = [
127		("x", c_float),("y", c_float),("z", c_float),
128		]
129
130		class Face(Structure):
131		"""
132		See 'aiMesh.h' for details.
133		"""
134
135		_fields_ = [
136		# Number of indices defining this face.# The maximum value for this member is #AI_MAX_FACE_INDICES.
137		("mNumIndices", c_uint),# Pointer to the indices array. Size of the array is given in numIndices.
138		("mIndices", POINTER(c_uint)),
139		]
140
141		class VertexWeight(Structure):
142		"""
143		See 'aiMesh.h' for details.
144		"""
145
146		_fields_ = [
147		# Index of the vertex which is influenced by the bone.
148		("mVertexId", c_uint),# The strength of the influence in the range (0...1).# The influence from all bones at one vertex amounts to 1.
149		("mWeight", c_float),
150		]
151
152		class MeshKey(Structure):
153		"""
154		See 'aiAnim.h' for details.
155		"""
156
157		_fields_ = [
158		#The time of this key#
159		("mTime", c_double),#Index into the aiMesh::mAnimMeshes array of the# mesh coresponding to the #aiMeshAnim hosting this# key frame. The referenced anim mesh is evaluated# according to the rules defined in the docs for #aiAnimMesh.#
160		("mValue", c_uint),
161		]
162
163		class Matrix4x4(Structure):
164		"""
165		See 'aiMatrix4x4.h' for details.
166		"""
167
168
169		_fields_ = [
170		("a1", c_float),("a2", c_float),("a3", c_float),("a4", c_float),
171		("b1", c_float),("b2", c_float),("b3", c_float),("b4", c_float),
172		("c1", c_float),("c2", c_float),("c3", c_float),("c4", c_float),
173		("d1", c_float),("d2", c_float),("d3", c_float),("d4", c_float),
174		]
175
176		class Node(Structure):
177		"""
178		See 'aiScene.h' for details.
179		"""
180
181
182		Node._fields_ = [
183		#The name of the node.##The name might be empty (length of zero) but all nodes which#need to be accessed afterwards by bones or anims are usually named.#Multiple nodes may have the same name, but nodes which are accessed#by bones (see #aiBone and #aiMesh::mBones) must be unique.##Cameras and lights are assigned to a specific node name - if there#are multiple nodes with this name, they're assigned to each of them.#<br>#There are no limitations regarding the characters contained in#this text. You should be able to handle stuff like whitespace, tabs,#linefeeds, quotation marks, ampersands, ... .#
184		("mName", String),#The transformation relative to the node's parent.#
185		("mTransformation", Matrix4x4),#Parent node. NULL if this node is the root node.#
186		("mParent", POINTER(Node)),#The number of child nodes of this node.#
187		("mNumChildren", c_uint),#The child nodes of this node. NULL if mNumChildren is 0.#
188		("mChildren", POINTER(POINTER(Node))),#The number of meshes of this node.#
189		("mNumMeshes", c_uint),#The meshes of this node. Each entry is an index into the mesh#
190		("mMeshes", POINTER(c_uint)),
191		]
192
193		class Camera(Structure):
194		"""
195		See 'aiCamera.h' for details.
196		"""
197
198
199		_fields_ = [
200		#The name of the camera.## There must be a node in the scenegraph with the same name.# This node specifies the position of the camera in the scene# hierarchy and can be animated.#
201		("mName", String),#Position of the camera relative to the coordinate space# defined by the corresponding node.## The default value is 0\|0\|0.#
202		("mPosition", Vector3D),#'Up' - vector of the camera coordinate system relative to# the coordinate space defined by the corresponding node.## The 'right' vector of the camera coordinate system is# the cross product of the up and lookAt vectors.# The default value is 0\|1\|0. The vector# may be normalized, but it needn't.#
203		("mUp", Vector3D),#'LookAt' - vector of the camera coordinate system relative to# the coordinate space defined by the corresponding node.## This is the viewing direction of the user.# The default value is 0\|0\|1. The vector# may be normalized, but it needn't.#
204		("mLookAt", Vector3D),#Half horizontal field of view angle, in radians.## The field of view angle is the angle between the center# line of the screen and the left or right border.# The default value is 1/4PI.#
205		("mHorizontalFOV", c_float),#Distance of the near clipping plane from the camera.##The value may not be 0.f (for arithmetic reasons to prevent#a division through zero). The default value is 0.1f.#
206		("mClipPlaneNear", c_float),#Distance of the far clipping plane from the camera.##The far clipping plane must, of course, be further away than the#near clipping plane. The default value is 1000.f. The ratio#between the near and the far plane should not be too#large (between 1000-10000 should be ok) to avoid floating-point#inaccuracies which could lead to z-fighting.#
207		("mClipPlaneFar", c_float),#Screen aspect ratio.##This is the ration between the width and the height of the#screen. Typical values are 4/3, 1/2 or 1/1. This value is#0 if the aspect ratio is not defined in the source file.#0 is also the default value.#
208		("mAspect", c_float),
209		]
210
211		class Texture(Structure):
212		"""
213		See 'aiTexture.h' for details.
214		"""
215
216
217		_fields_ = [
218		#Width of the texture, in pixels##If mHeight is zero the texture is compressed in a format#like JPEG. In this case mWidth specifies the size of the#memory area pcData is pointing to, in bytes.#
219		("mWidth", c_uint),#Height of the texture, in pixels##If this value is zero, pcData points to an compressed texture#in any format (e.g. JPEG).#
220		("mHeight", c_uint),#A hint from the loader to make it easier for applications# to determine the type of embedded compressed textures.##If mHeight != 0 this member is undefined. Otherwise it#is set set to '\\0\\0\\0\\0' if the loader has no additional#information about the texture file format used OR the#file extension of the format without a trailing dot. If there#are multiple file extensions for a format, the shortest#extension is chosen (JPEG maps to 'jpg', not to 'jpeg').#E.g. 'dds\\0', 'pcx\\0', 'jpg\\0'. All characters are lower-case.#The fourth character will always be '\\0'.#
221		("achFormatHint", c_char*4),#Data of the texture.##Points to an array of mWidth#mHeight aiTexel's.#The format of the texture data is always ARGB8888 to#make the implementation for user of the library as easy#as possible. If mHeight = 0 this is a pointer to a memory#buffer of size mWidth containing the compressed texture#data. Good luck, have fun!#
222		("pcData", POINTER(Texel)),
223		]
224
225		class Ray(Structure):
226		"""
227		See 'aiTypes.h' for details.
228		"""
229
230		_fields_ = [
231		# Position and direction of the ray
232		("pos", Vector3D),("dir", Vector3D),
233		]
234
235		class Light(Structure):
236		"""
237		See 'aiLight.h' for details.
238		"""
239
240
241		_fields_ = [
242		#The name of the light source.## There must be a node in the scenegraph with the same name.# This node specifies the position of the light in the scene# hierarchy and can be animated.#
243		("mName", String),#The type of the light source.##aiLightSource_UNDEFINED is not a valid value for this member.#
244		("mType", c_uint),#Position of the light source in space. Relative to the# transformation of the node corresponding to the light.## The position is undefined for directional lights.#
245		("mPosition", Vector3D),#Direction of the light source in space. Relative to the# transformation of the node corresponding to the light.## The direction is undefined for point lights. The vector# may be normalized, but it needn't.#
246		("mDirection", Vector3D),#Constant light attenuation factor.## The intensity of the light source at a given distance 'd' from# the light's position is# @code# Atten = 1/( att0 + att1#d + att2#d*d)# @endcode# This member corresponds to the att0 variable in the equation.# Naturally undefined for directional lights.#
247		("mAttenuationConstant", c_float),#Linear light attenuation factor.## The intensity of the light source at a given distance 'd' from# the light's position is# @code# Atten = 1/( att0 + att1#d + att2#d*d)# @endcode# This member corresponds to the att1 variable in the equation.# Naturally undefined for directional lights.#
248		("mAttenuationLinear", c_float),#Quadratic light attenuation factor.## The intensity of the light source at a given distance 'd' from# the light's position is# @code# Atten = 1/( att0 + att1#d + att2#d*d)# @endcode# This member corresponds to the att2 variable in the equation.# Naturally undefined for directional lights.#
249		("mAttenuationQuadratic", c_float),#Diffuse color of the light source## The diffuse light color is multiplied with the diffuse# material color to obtain the final color that contributes# to the diffuse shading term.#
250		("mColorDiffuse", Color3D),#Specular color of the light source## The specular light color is multiplied with the specular# material color to obtain the final color that contributes# to the specular shading term.#
251		("mColorSpecular", Color3D),#Ambient color of the light source## The ambient light color is multiplied with the ambient# material color to obtain the final color that contributes# to the ambient shading term. Most renderers will ignore# this value it, is just a remaining of the fixed-function pipeline# that is still supported by quite many file formats.#
252		("mColorAmbient", Color3D),#Inner angle of a spot light's light cone.## The spot light has maximum influence on objects inside this# angle. The angle is given in radians. It is 2PI for point# lights and undefined for directional lights.#
253		("mAngleInnerCone", c_float),#Outer angle of a spot light's light cone.## The spot light does not affect objects outside this angle.# The angle is given in radians. It is 2PI for point lights and# undefined for directional lights. The outer angle must be# greater than or equal to the inner angle.# It is assumed that the application uses a smooth# interpolation between the inner and the outer cone of the# spot light.#
254		("mAngleOuterCone", c_float),
255		]
256
257		class Bone(Structure):
258		"""
259		See 'aiMesh.h' for details.
260		"""
261
262		_fields_ = [
263		# The name of the bone.
264		("mName", String),# The number of vertices affected by this bone# The maximum value for this member is #AI_MAX_BONE_WEIGHTS.
265		("mNumWeights", c_uint),# The vertices affected by this bone
266		("mWeights", POINTER(VertexWeight)),# Matrix that transforms from mesh space to bone space in bind pose
267		("mOffsetMatrix", Matrix4x4),
268		]
269
270		class Mesh(Structure):
271		"""
272		See 'aiMesh.h' for details.
273		"""
274
	73
	74	_fields_ = [
	75	# Binary length of the string excluding the terminal 0. This is NOT the
	76	# logical length of strings containing UTF-8 multibyte sequences! It's
	77	# the number of bytes from the beginning of the string to its end.
	78	("length", c_size_t),
	79
	80	# String buffer. Size limit is MAXLEN
	81	("data", c_char*MAXLEN),
	82	]
	83
	84	class MaterialPropertyString(Structure):
	85	"""
	86	See 'aiTypes.h' for details.
	87
	88	The size of length is truncated to 4 bytes on 64-bit platforms when used as a
	89	material property (see MaterialSystem.cpp aiMaterial::AddProperty() for details).
	90	"""
	91
	92	MAXLEN = 1024
	93
	94	_fields_ = [
	95	# Binary length of the string excluding the terminal 0. This is NOT the
	96	# logical length of strings containing UTF-8 multibyte sequences! It's
	97	# the number of bytes from the beginning of the string to its end.
	98	("length", c_uint32),
	99
	100	# String buffer. Size limit is MAXLEN
	101	("data", c_char*MAXLEN),
	102	]
	103
	104	class MemoryInfo(Structure):
	105	"""
	106	See 'aiTypes.h' for details.
	107	"""
	108
	109	_fields_ = [
	110	# Storage allocated for texture data
	111	("textures", c_uint),
	112
	113	# Storage allocated for material data
	114	("materials", c_uint),
	115
	116	# Storage allocated for mesh data
	117	("meshes", c_uint),
	118
	119	# Storage allocated for node data
	120	("nodes", c_uint),
	121
	122	# Storage allocated for animation data
	123	("animations", c_uint),
	124
	125	# Storage allocated for camera data
	126	("cameras", c_uint),
	127
	128	# Storage allocated for light data
	129	("lights", c_uint),
	130
	131	# Total storage allocated for the full import.
	132	("total", c_uint),
	133	]
	134
	135	class Quaternion(Structure):
	136	"""
	137	See 'aiQuaternion.h' for details.
	138	"""
	139
	140
	141	_fields_ = [
	142	# w,x,y,z components of the quaternion
	143	("w", c_float),("x", c_float),("y", c_float),("z", c_float),
	144	]
	145
	146	class Face(Structure):
	147	"""
	148	See 'aiMesh.h' for details.
	149	"""
	150
	151	_fields_ = [
	152	# Number of indices defining this face.
	153	# The maximum value for this member is
	154	#AI_MAX_FACE_INDICES.
	155	("mNumIndices", c_uint),
	156
	157	# Pointer to the indices array. Size of the array is given in numIndices.
	158	("mIndices", POINTER(c_uint)),
	159	]
	160
	161	class VertexWeight(Structure):
	162	"""
	163	See 'aiMesh.h' for details.
	164	"""
	165
	166	_fields_ = [
	167	# Index of the vertex which is influenced by the bone.
	168	("mVertexId", c_uint),
	169
	170	# The strength of the influence in the range (0...1).
	171	# The influence from all bones at one vertex amounts to 1.
	172	("mWeight", c_float),
	173	]
	174
	175	class Matrix4x4(Structure):
	176	"""
	177	See 'aiMatrix4x4.h' for details.
	178	"""
	179
	180
	181	_fields_ = [
	182	("a1", c_float),("a2", c_float),("a3", c_float),("a4", c_float),
	183	("b1", c_float),("b2", c_float),("b3", c_float),("b4", c_float),
	184	("c1", c_float),("c2", c_float),("c3", c_float),("c4", c_float),
	185	("d1", c_float),("d2", c_float),("d3", c_float),("d4", c_float),
	186	]
	187
	188	class Vector3D(Structure):
	189	"""
	190	See 'aiVector3D.h' for details.
	191	"""
	192
	193
	194	_fields_ = [
	195	("x", c_float),("y", c_float),("z", c_float),
	196	]
	197
	198	class MeshKey(Structure):
	199	"""
	200	See 'aiAnim.h' for details.
	201	"""
	202
	203	_fields_ = [
	204	# The time of this key
	205	("mTime", c_double),
	206
	207	# Index into the aiMesh::mAnimMeshes array of the
	208	# mesh coresponding to the
	209	#aiMeshAnim hosting this
	210	# key frame. The referenced anim mesh is evaluated
	211	# according to the rules defined in the docs for
	212	#aiAnimMesh.
	213	("mValue", c_uint),
	214	]
	215
	216	class Node(Structure):
	217	"""
	218	See 'aiScene.h' for details.
	219	"""
	220
	221
	222	Node._fields_ = [
	223	# The name of the node.
	224	# The name might be empty (length of zero) but all nodes which
	225	# need to be accessed afterwards by bones or anims are usually named.
	226	# Multiple nodes may have the same name, but nodes which are accessed
	227	# by bones (see
	228	#aiBone and
	229	#aiMesh::mBones) must be unique.
	230	# Cameras and lights are assigned to a specific node name - if there
	231	# are multiple nodes with this name, they're assigned to each of them.
	232	# <br>
	233	# There are no limitations regarding the characters contained in
	234	# this text. You should be able to handle stuff like whitespace, tabs,
	235	# linefeeds, quotation marks, ampersands, ... .
	236	("mName", String),
	237
	238	# The transformation relative to the node's parent.
	239	("mTransformation", Matrix4x4),
	240
	241	# Parent node. NULL if this node is the root node.
	242	("mParent", POINTER(Node)),
	243
	244	# The number of child nodes of this node.
	245	("mNumChildren", c_uint),
	246
	247	# The child nodes of this node. NULL if mNumChildren is 0.
	248	("mChildren", POINTER(POINTER(Node))),
	249
	250	# The number of meshes of this node.
	251	("mNumMeshes", c_uint),
	252
	253	# The meshes of this node. Each entry is an index into the mesh
	254	("mMeshes", POINTER(c_uint)),
	255	]
	256
	257	class Light(Structure):
	258	"""
	259	See 'aiLight.h' for details.
	260	"""
	261
	262
	263	_fields_ = [
	264	# The name of the light source.
	265	# There must be a node in the scenegraph with the same name.
	266	# This node specifies the position of the light in the scene
	267	# hierarchy and can be animated.
	268	("mName", String),
	269
	270	# The type of the light source.
	271	# aiLightSource_UNDEFINED is not a valid value for this member.
	272	("mType", c_uint),
	273
	274	# Position of the light source in space. Relative to the
	275	# transformation of the node corresponding to the light.
	276	# The position is undefined for directional lights.
	277	("mPosition", Vector3D),
	278
	279	# Direction of the light source in space. Relative to the
	280	# transformation of the node corresponding to the light.
	281	# The direction is undefined for point lights. The vector
	282	# may be normalized, but it needn't.
	283	("mDirection", Vector3D),
	284
	285	# Constant light attenuation factor.
	286	# The intensity of the light source at a given distance 'd' from
	287	# the light's position is
	288	# @code
	289	# Atten = 1/( att0 + att1
	290	# d + att2
	291	# d*d)
	292	# @endcode
	293	# This member corresponds to the att0 variable in the equation.
	294	# Naturally undefined for directional lights.
	295	("mAttenuationConstant", c_float),
	296
	297	# Linear light attenuation factor.
	298	# The intensity of the light source at a given distance 'd' from
	299	# the light's position is
	300	# @code
	301	# Atten = 1/( att0 + att1
	302	# d + att2
	303	# d*d)
	304	# @endcode
	305	# This member corresponds to the att1 variable in the equation.
	306	# Naturally undefined for directional lights.
	307	("mAttenuationLinear", c_float),
	308
	309	# Quadratic light attenuation factor.
	310	# The intensity of the light source at a given distance 'd' from
	311	# the light's position is
	312	# @code
	313	# Atten = 1/( att0 + att1
	314	# d + att2
	315	# d*d)
	316	# @endcode
	317	# This member corresponds to the att2 variable in the equation.
	318	# Naturally undefined for directional lights.
	319	("mAttenuationQuadratic", c_float),
	320
	321	# Diffuse color of the light source
	322	# The diffuse light color is multiplied with the diffuse
	323	# material color to obtain the final color that contributes
	324	# to the diffuse shading term.
	325	("mColorDiffuse", Color3D),
	326
	327	# Specular color of the light source
	328	# The specular light color is multiplied with the specular
	329	# material color to obtain the final color that contributes
	330	# to the specular shading term.
	331	("mColorSpecular", Color3D),
	332
	333	# Ambient color of the light source
	334	# The ambient light color is multiplied with the ambient
	335	# material color to obtain the final color that contributes
	336	# to the ambient shading term. Most renderers will ignore
	337	# this value it, is just a remaining of the fixed-function pipeline
	338	# that is still supported by quite many file formats.
	339	("mColorAmbient", Color3D),
	340
	341	# Inner angle of a spot light's light cone.
	342	# The spot light has maximum influence on objects inside this
	343	# angle. The angle is given in radians. It is 2PI for point
	344	# lights and undefined for directional lights.
	345	("mAngleInnerCone", c_float),
	346
	347	# Outer angle of a spot light's light cone.
	348	# The spot light does not affect objects outside this angle.
	349	# The angle is given in radians. It is 2PI for point lights and
	350	# undefined for directional lights. The outer angle must be
	351	# greater than or equal to the inner angle.
	352	# It is assumed that the application uses a smooth
	353	# interpolation between the inner and the outer cone of the
	354	# spot light.
	355	("mAngleOuterCone", c_float),
	356	]
	357
	358	class Texture(Structure):
	359	"""
	360	See 'aiTexture.h' for details.
	361	"""
	362
	363
	364	_fields_ = [
	365	# Width of the texture, in pixels
	366	# If mHeight is zero the texture is compressed in a format
	367	# like JPEG. In this case mWidth specifies the size of the
	368	# memory area pcData is pointing to, in bytes.
	369	("mWidth", c_uint),
	370
	371	# Height of the texture, in pixels
	372	# If this value is zero, pcData points to an compressed texture
	373	# in any format (e.g. JPEG).
	374	("mHeight", c_uint),
	375
	376	# A hint from the loader to make it easier for applications
	377	# to determine the type of embedded compressed textures.
	378	# If mHeight != 0 this member is undefined. Otherwise it
	379	# is set set to '\\0\\0\\0\\0' if the loader has no additional
	380	# information about the texture file format used OR the
	381	# file extension of the format without a trailing dot. If there
	382	# are multiple file extensions for a format, the shortest
	383	# extension is chosen (JPEG maps to 'jpg', not to 'jpeg').
	384	# E.g. 'dds\\0', 'pcx\\0', 'jpg\\0'. All characters are lower-case.
	385	# The fourth character will always be '\\0'.
	386	("achFormatHint", c_char*4),
	387
	388	# Data of the texture.
	389	# Points to an array of mWidth
	390	# mHeight aiTexel's.
	391	# The format of the texture data is always ARGB8888 to
	392	# make the implementation for user of the library as easy
	393	# as possible. If mHeight = 0 this is a pointer to a memory
	394	# buffer of size mWidth containing the compressed texture
	395	# data. Good luck, have fun!
	396	("pcData", POINTER(Texel)),
	397	]
	398
	399	class Ray(Structure):
	400	"""
	401	See 'aiTypes.h' for details.
	402	"""
	403
	404	_fields_ = [
	405	# Position and direction of the ray
	406	("pos", Vector3D),("dir", Vector3D),
	407	]
	408
	409	class UVTransform(Structure):
	410	"""
	411	See 'aiMaterial.h' for details.
	412	"""
	413
	414	_fields_ = [
	415	# Translation on the u and v axes.
	416	# The default value is (0\|0).
	417	("mTranslation", Vector2D),
	418
	419	# Scaling on the u and v axes.
	420	# The default value is (1\|1).
	421	("mScaling", Vector2D),
	422
	423	# Rotation - in counter-clockwise direction.
	424	# The rotation angle is specified in radians. The
	425	# rotation center is 0.5f\|0.5f. The default value
	426	# 0.f.
	427	("mRotation", c_float),
	428	]
	429
	430	class MaterialProperty(Structure):
	431	"""
	432	See 'aiMaterial.h' for details.
	433	"""
	434
	435	_fields_ = [
	436	# Specifies the name of the property (key)
	437	# Keys are generally case insensitive.
	438	("mKey", String),
	439
	440	# Textures: Specifies their exact usage semantic.
	441	# For non-texture properties, this member is always 0
	442	# (or, better-said,
	443	#aiTextureType_NONE).
	444	("mSemantic", c_uint),
	445
	446	# Textures: Specifies the index of the texture.
	447	# For non-texture properties, this member is always 0.
	448	("mIndex", c_uint),
	449
	450	# Size of the buffer mData is pointing to, in bytes.
	451	# This value may not be 0.
	452	("mDataLength", c_uint),
	453
	454	# Type information for the property.
	455	# Defines the data layout inside the data buffer. This is used
	456	# by the library internally to perform debug checks and to
	457	# utilize proper type conversions.
	458	# (It's probably a hacky solution, but it works.)
	459	("mType", c_uint),
	460
	461	# Binary buffer to hold the property's value.
	462	# The size of the buffer is always mDataLength.
	463	("mData", POINTER(c_char)),
	464	]
	465
	466	class Material(Structure):
	467	"""
	468	See 'aiMaterial.h' for details.
	469	"""
	470
	471	_fields_ = [
	472	# List of all material properties loaded.
	473	("mProperties", POINTER(POINTER(MaterialProperty))),
	474
	475	# Number of properties in the data base
	476	("mNumProperties", c_uint),
	477
	478	# Storage allocated
	479	("mNumAllocated", c_uint),
	480	]
	481
	482	class Bone(Structure):
	483	"""
	484	See 'aiMesh.h' for details.
	485	"""
	486
	487	_fields_ = [
	488	# The name of the bone.
	489	("mName", String),
	490
	491	# The number of vertices affected by this bone
	492	# The maximum value for this member is
	493	#AI_MAX_BONE_WEIGHTS.
	494	("mNumWeights", c_uint),
	495
	496	# The vertices affected by this bone
	497	("mWeights", POINTER(VertexWeight)),
	498
	499	# Matrix that transforms from mesh space to bone space in bind pose
	500	("mOffsetMatrix", Matrix4x4),
	501	]
	502
	503	class Mesh(Structure):
	504	"""
	505	See 'aiMesh.h' for details.
	506	"""
	507
275	508	AI_MAX_FACE_INDICES = 0x7fff
276	509	AI_MAX_BONE_WEIGHTS = 0x7fffffff
277	510	AI_MAX_VERTICES = 0x7fffffff
278	511	AI_MAX_FACES = 0x7fffffff
279	512	AI_MAX_NUMBER_OF_COLOR_SETS = 0x8
280	513	AI_MAX_NUMBER_OF_TEXTURECOORDS = 0x8
281
282		_fields_ = [
283		#Bitwise combination of the members of the #aiPrimitiveType enum.#This specifies which types of primitives are present in the mesh.#The "SortByPrimitiveType"-Step can be used to make sure the#output meshes consist of one primitive type each.#
284		("mPrimitiveTypes", c_uint),#The number of vertices in this mesh.#This is also the size of all of the per-vertex data arrays.#The maximum value for this member is #AI_MAX_VERTICES.#
285		("mNumVertices", c_uint),#The number of primitives (triangles, polygons, lines) in this mesh.#This is also the size of the mFaces array.#The maximum value for this member is #AI_MAX_FACES.#
286		("mNumFaces", c_uint),#Vertex positions.#This array is always present in a mesh. The array is#mNumVertices in size.#
287		("mVertices", POINTER(Vector3D)),#Vertex normals.#The array contains normalized vectors, NULL if not present.#The array is mNumVertices in size. Normals are undefined for#point and line primitives. A mesh consisting of points and#lines only may not have normal vectors. Meshes with mixed#primitive types (i.e. lines and triangles) may have normals,#but the normals for vertices that are only referenced by#point or line primitives are undefined and set to QNaN (WARN:#qNaN compares to inequal to everything, even to qNaN itself.#Using code like this to check whether a field is qnan is:#@code##define IS_QNAN(f) (f != f)#@endcode#still dangerous because even 1.f == 1.f could evaluate to false! (#remember the subtleties of IEEE754 artithmetics). Use stuff like#@c fpclassify instead.#@note Normal vectors computed by Assimp are always unit-length.#However, this needn't apply for normals that have been taken# directly from the model file.#
288		("mNormals", POINTER(Vector3D)),#Vertex tangents.#The tangent of a vertex points in the direction of the positive#X texture axis. The array contains normalized vectors, NULL if#not present. The array is mNumVertices in size. A mesh consisting#of points and lines only may not have normal vectors. Meshes with#mixed primitive types (i.e. lines and triangles) may have#normals, but the normals for vertices that are only referenced by#point or line primitives are undefined and set to qNaN. See#the #mNormals member for a detailled discussion of qNaNs.#@note If the mesh contains tangents, it automatically also#contains bitangents.#
289		("mTangents", POINTER(Vector3D)),#Vertex bitangents.#The bitangent of a vertex points in the direction of the positive#Y texture axis. The array contains normalized vectors, NULL if not#present. The array is mNumVertices in size.#@note If the mesh contains tangents, it automatically also contains#bitangents.#
290		("mBitangents", POINTER(Vector3D)),#Vertex color sets.#A mesh may contain 0 to #AI_MAX_NUMBER_OF_COLOR_SETS vertex#colors per vertex. NULL if not present. Each array is#mNumVertices in size if present.#
291		("mColors", POINTER(Color4D)*AI_MAX_NUMBER_OF_COLOR_SETS),#Vertex texture coords, also known as UV channels.#A mesh may contain 0 to AI_MAX_NUMBER_OF_TEXTURECOORDS per#vertex. NULL if not present. The array is mNumVertices in size.#
292		("mTextureCoords", POINTER(Vector3D)*AI_MAX_NUMBER_OF_TEXTURECOORDS),#Specifies the number of components for a given UV channel.#Up to three channels are supported (UVW, for accessing volume#or cube maps). If the value is 2 for a given channel n, the#component p.z of mTextureCoords[n][p] is set to 0.0f.#If the value is 1 for a given channel, p.y is set to 0.0f, too.#@note 4D coords are not supported#
293		("mNumUVComponents", c_uint*AI_MAX_NUMBER_OF_TEXTURECOORDS),#The faces the mesh is constructed from.#Each face refers to a number of vertices by their indices.#This array is always present in a mesh, its size is given#in mNumFaces. If the #AI_SCENE_FLAGS_NON_VERBOSE_FORMAT#is NOT set each face references an unique set of vertices.#
294		("mFaces", POINTER(Face)),#The number of bones this mesh contains.#Can be 0, in which case the mBones array is NULL.#
295		("mNumBones", c_uint),#The bones of this mesh.#A bone consists of a name by which it can be found in the#frame hierarchy and a set of vertex weights.#
296		("mBones", POINTER(POINTER(Bone))),#The material used by this mesh.#A mesh does use only a single material. If an imported model uses#multiple materials, the import splits up the mesh. Use this value#as index into the scene's material list.#
297		("mMaterialIndex", c_uint),#Name of the mesh. Meshes can be named, but this is not a# requirement and leaving this field empty is totally fine.# There are mainly three uses for mesh names:# - some formats name nodes and meshes independently.# - importers tend to split meshes up to meet the# one-material-per-mesh requirement. Assigning# the same (dummy) name to each of the result meshes# aids the caller at recovering the original mesh# partitioning.# - Vertex animations refer to meshes by their names.#
298		("mName", String),#NOT CURRENTLY IN USE. The number of attachment meshes#
299		("mNumAnimMeshes", c_uint),#NOT CURRENTLY IN USE. Attachment meshes for this mesh, for vertex-based animation.# Attachment meshes carry replacement data for some of the# mesh'es vertex components (usually positions, normals).#
300		]
301
302		class VectorKey(Structure):
303		"""
304		See 'aiAnim.h' for details.
305		"""
306
307		_fields_ = [
308		#The time of this key#
309		("mTime", c_double),#The value of this key#
310		("mValue", Vector3D),
311		]
312
313		class QuatKey(Structure):
314		"""
315		See 'aiAnim.h' for details.
316		"""
317
318		_fields_ = [
319		#The time of this key#
320		("mTime", c_double),#The value of this key#
321		("mValue", Quaternion),
322		]
323
324		class NodeAnim(Structure):
325		"""
326		See 'aiAnim.h' for details.
327		"""
328
329		_fields_ = [
330		#The name of the node affected by this animation. The node# must exist and it must be unique.#
331		("mNodeName", String),#The number of position keys#
332		("mNumPositionKeys", c_uint),#The position keys of this animation channel. Positions are#specified as 3D vector. The array is mNumPositionKeys in size.##If there are position keys, there will also be at least one#scaling and one rotation key.#
333		("mPositionKeys", POINTER(VectorKey)),#The number of rotation keys#
334		("mNumRotationKeys", c_uint),#The rotation keys of this animation channel. Rotations are# given as quaternions, which are 4D vectors. The array is# mNumRotationKeys in size.##If there are rotation keys, there will also be at least one#scaling and one position key.#
335		("mRotationKeys", POINTER(QuatKey)),#The number of scaling keys#
336		("mNumScalingKeys", c_uint),#The scaling keys of this animation channel. Scalings are# specified as 3D vector. The array is mNumScalingKeys in size.##If there are scaling keys, there will also be at least one#position and one rotation key.#
337		("mScalingKeys", POINTER(VectorKey)),#Defines how the animation behaves before the first# key is encountered.## The default value is aiAnimBehaviour_DEFAULT (the original# transformation matrix of the affected node is used).#
338		("mPreState", c_uint),#Defines how the animation behaves after the last# key was processed.## The default value is aiAnimBehaviour_DEFAULT (the original# transformation matrix of the affected node is taken).#
339		("mPostState", c_uint),
340		]
341
342		class Animation(Structure):
343		"""
344		See 'aiAnim.h' for details.
345		"""
346
347		_fields_ = [
348		#The name of the animation. If the modeling package this data was# exported from does support only a single animation channel, this# name is usually empty (length is zero).#
349		("mName", String),#Duration of the animation in ticks.#
350		("mDuration", c_double),#Ticks per second. 0 if not specified in the imported file#
351		("mTicksPerSecond", c_double),#The number of bone animation channels. Each channel affects# a single node.#
352		("mNumChannels", c_uint),#The node animation channels. Each channel affects a single node.# The array is mNumChannels in size.#
353		("mChannels", POINTER(POINTER(NodeAnim))),#The number of mesh animation channels. Each channel affects# a single mesh and defines vertex-based animation.#
354		("mNumMeshChannels", c_uint),#The mesh animation channels. Each channel affects a single mesh.# The array is mNumMeshChannels in size.#
355		]
356
357		class UVTransform(Structure):
358		"""
359		See 'aiMaterial.h' for details.
360		"""
361
362		_fields_ = [
363		#Translation on the u and v axes.## The default value is (0\|0).#
364		("mTranslation", Vector2D),#Scaling on the u and v axes.## The default value is (1\|1).#
365		("mScaling", Vector2D),#Rotation - in counter-clockwise direction.## The rotation angle is specified in radians. The# rotation center is 0.5f\|0.5f. The default value# 0.f.#
366		("mRotation", c_float),
367		]
368
369		class MaterialProperty(Structure):
370		"""
371		See 'aiMaterial.h' for details.
372		"""
373
374		_fields_ = [
375		#Specifies the name of the property (key)# Keys are generally case insensitive.#
376		("mKey", String),#Textures: Specifies their exact usage semantic.#For non-texture properties, this member is always 0#(or, better-said, #aiTextureType_NONE).#
377		("mSemantic", c_uint),#Textures: Specifies the index of the texture.# For non-texture properties, this member is always 0.#
378		("mIndex", c_uint),#Size of the buffer mData is pointing to, in bytes.# This value may not be 0.#
379		("mDataLength", c_uint),#Type information for the property.##Defines the data layout inside the data buffer. This is used#by the library internally to perform debug checks and to#utilize proper type conversions.#(It's probably a hacky solution, but it works.)#
380		("mType", c_uint),#Binary buffer to hold the property's value.#The size of the buffer is always mDataLength.#
381		("mData", POINTER(c_char)),
382		]
383
384		class Material(Structure):
385		"""
386		See 'aiMaterial.h' for details.
387		"""
388
389		_fields_ = [
390		#List of all material properties loaded.#
391		("mProperties", POINTER(POINTER(MaterialProperty))),#Number of properties in the data base#
392		("mNumProperties", c_uint),#Storage allocated#
393		("mNumAllocated", c_uint),
394		]
395
396		class Scene(Structure):
397		"""
398		See 'aiScene.h' for details.
399		"""
400
	514
	515	_fields_ = [
	516	# Bitwise combination of the members of the
	517	#aiPrimitiveType enum.
	518	# This specifies which types of primitives are present in the mesh.
	519	# The "SortByPrimitiveType"-Step can be used to make sure the
	520	# output meshes consist of one primitive type each.
	521	("mPrimitiveTypes", c_uint),
	522
	523	# The number of vertices in this mesh.
	524	# This is also the size of all of the per-vertex data arrays.
	525	# The maximum value for this member is
	526	#AI_MAX_VERTICES.
	527	("mNumVertices", c_uint),
	528
	529	# The number of primitives (triangles, polygons, lines) in this mesh.
	530	# This is also the size of the mFaces array.
	531	# The maximum value for this member is
	532	#AI_MAX_FACES.
	533	("mNumFaces", c_uint),
	534
	535	# Vertex positions.
	536	# This array is always present in a mesh. The array is
	537	# mNumVertices in size.
	538	("mVertices", POINTER(Vector3D)),
	539
	540	# Vertex normals.
	541	# The array contains normalized vectors, NULL if not present.
	542	# The array is mNumVertices in size. Normals are undefined for
	543	# point and line primitives. A mesh consisting of points and
	544	# lines only may not have normal vectors. Meshes with mixed
	545	# primitive types (i.e. lines and triangles) may have normals,
	546	# but the normals for vertices that are only referenced by
	547	# point or line primitives are undefined and set to QNaN (WARN:
	548	# qNaN compares to inequal to everything, even to qNaN itself.
	549	# Using code like this to check whether a field is qnan is:
	550	# @code
	551	#define IS_QNAN(f) (f != f)
	552	# @endcode
	553	# still dangerous because even 1.f == 1.f could evaluate to false! (
	554	# remember the subtleties of IEEE754 artithmetics). Use stuff like
	555	# @c fpclassify instead.
	556	# @note Normal vectors computed by Assimp are always unit-length.
	557	# However, this needn't apply for normals that have been taken
	558	# directly from the model file.
	559	("mNormals", POINTER(Vector3D)),
	560
	561	# Vertex tangents.
	562	# The tangent of a vertex points in the direction of the positive
	563	# X texture axis. The array contains normalized vectors, NULL if
	564	# not present. The array is mNumVertices in size. A mesh consisting
	565	# of points and lines only may not have normal vectors. Meshes with
	566	# mixed primitive types (i.e. lines and triangles) may have
	567	# normals, but the normals for vertices that are only referenced by
	568	# point or line primitives are undefined and set to qNaN. See
	569	# the
	570	#mNormals member for a detailled discussion of qNaNs.
	571	# @note If the mesh contains tangents, it automatically also
	572	# contains bitangents (the bitangent is just the cross product of
	573	# tangent and normal vectors).
	574	("mTangents", POINTER(Vector3D)),
	575
	576	# Vertex bitangents.
	577	# The bitangent of a vertex points in the direction of the positive
	578	# Y texture axis. The array contains normalized vectors, NULL if not
	579	# present. The array is mNumVertices in size.
	580	# @note If the mesh contains tangents, it automatically also contains
	581	# bitangents.
	582	("mBitangents", POINTER(Vector3D)),
	583
	584	# Vertex color sets.
	585	# A mesh may contain 0 to
	586	#AI_MAX_NUMBER_OF_COLOR_SETS vertex
	587	# colors per vertex. NULL if not present. Each array is
	588	# mNumVertices in size if present.
	589	("mColors", POINTER(Color4D)*AI_MAX_NUMBER_OF_COLOR_SETS),
	590
	591	# Vertex texture coords, also known as UV channels.
	592	# A mesh may contain 0 to AI_MAX_NUMBER_OF_TEXTURECOORDS per
	593	# vertex. NULL if not present. The array is mNumVertices in size.
	594	("mTextureCoords", POINTER(Vector3D)*AI_MAX_NUMBER_OF_TEXTURECOORDS),
	595
	596	# Specifies the number of components for a given UV channel.
	597	# Up to three channels are supported (UVW, for accessing volume
	598	# or cube maps). If the value is 2 for a given channel n, the
	599	# component p.z of mTextureCoords[n][p] is set to 0.0f.
	600	# If the value is 1 for a given channel, p.y is set to 0.0f, too.
	601	# @note 4D coords are not supported
	602	("mNumUVComponents", c_uint*AI_MAX_NUMBER_OF_TEXTURECOORDS),
	603
	604	# The faces the mesh is constructed from.
	605	# Each face refers to a number of vertices by their indices.
	606	# This array is always present in a mesh, its size is given
	607	# in mNumFaces. If the
	608	#AI_SCENE_FLAGS_NON_VERBOSE_FORMAT
	609	# is NOT set each face references an unique set of vertices.
	610	("mFaces", POINTER(Face)),
	611
	612	# The number of bones this mesh contains.
	613	# Can be 0, in which case the mBones array is NULL.
	614	("mNumBones", c_uint),
	615
	616	# The bones of this mesh.
	617	# A bone consists of a name by which it can be found in the
	618	# frame hierarchy and a set of vertex weights.
	619	("mBones", POINTER(POINTER(Bone))),
	620
	621	# The material used by this mesh.
	622	# A mesh does use only a single material. If an imported model uses
	623	# multiple materials, the import splits up the mesh. Use this value
	624	# as index into the scene's material list.
	625	("mMaterialIndex", c_uint),
	626
	627	# Name of the mesh. Meshes can be named, but this is not a
	628	# requirement and leaving this field empty is totally fine.
	629	# There are mainly three uses for mesh names:
	630	# - some formats name nodes and meshes independently.
	631	# - importers tend to split meshes up to meet the
	632	# one-material-per-mesh requirement. Assigning
	633	# the same (dummy) name to each of the result meshes
	634	# aids the caller at recovering the original mesh
	635	# partitioning.
	636	# - Vertex animations refer to meshes by their names.
	637	("mName", String),
	638
	639	# NOT CURRENTLY IN USE. The number of attachment meshes
	640	("mNumAnimMeshes", c_uint),
	641
	642	# NOT CURRENTLY IN USE. Attachment meshes for this mesh, for vertex-based animation.
	643	# Attachment meshes carry replacement data for some of the
	644	# mesh'es vertex components (usually positions, normals).
	645	]
	646
	647	class Camera(Structure):
	648	"""
	649	See 'aiCamera.h' for details.
	650	"""
	651
	652
	653	_fields_ = [
	654	# The name of the camera.
	655	# There must be a node in the scenegraph with the same name.
	656	# This node specifies the position of the camera in the scene
	657	# hierarchy and can be animated.
	658	("mName", String),
	659
	660	# Position of the camera relative to the coordinate space
	661	# defined by the corresponding node.
	662	# The default value is 0\|0\|0.
	663	("mPosition", Vector3D),
	664
	665	# 'Up' - vector of the camera coordinate system relative to
	666	# the coordinate space defined by the corresponding node.
	667	# The 'right' vector of the camera coordinate system is
	668	# the cross product of the up and lookAt vectors.
	669	# The default value is 0\|1\|0. The vector
	670	# may be normalized, but it needn't.
	671	("mUp", Vector3D),
	672
	673	# 'LookAt' - vector of the camera coordinate system relative to
	674	# the coordinate space defined by the corresponding node.
	675	# This is the viewing direction of the user.
	676	# The default value is 0\|0\|1. The vector
	677	# may be normalized, but it needn't.
	678	("mLookAt", Vector3D),
	679
	680	# Half horizontal field of view angle, in radians.
	681	# The field of view angle is the angle between the center
	682	# line of the screen and the left or right border.
	683	# The default value is 1/4PI.
	684	("mHorizontalFOV", c_float),
	685
	686	# Distance of the near clipping plane from the camera.
	687	# The value may not be 0.f (for arithmetic reasons to prevent
	688	# a division through zero). The default value is 0.1f.
	689	("mClipPlaneNear", c_float),
	690
	691	# Distance of the far clipping plane from the camera.
	692	# The far clipping plane must, of course, be further away than the
	693	# near clipping plane. The default value is 1000.f. The ratio
	694	# between the near and the far plane should not be too
	695	# large (between 1000-10000 should be ok) to avoid floating-point
	696	# inaccuracies which could lead to z-fighting.
	697	("mClipPlaneFar", c_float),
	698
	699	# Screen aspect ratio.
	700	# This is the ration between the width and the height of the
	701	# screen. Typical values are 4/3, 1/2 or 1/1. This value is
	702	# 0 if the aspect ratio is not defined in the source file.
	703	# 0 is also the default value.
	704	("mAspect", c_float),
	705	]
	706
	707	class VectorKey(Structure):
	708	"""
	709	See 'aiAnim.h' for details.
	710	"""
	711
	712	_fields_ = [
	713	# The time of this key
	714	("mTime", c_double),
	715
	716	# The value of this key
	717	("mValue", Vector3D),
	718	]
	719
	720	class QuatKey(Structure):
	721	"""
	722	See 'aiAnim.h' for details.
	723	"""
	724
	725	_fields_ = [
	726	# The time of this key
	727	("mTime", c_double),
	728
	729	# The value of this key
	730	("mValue", Quaternion),
	731	]
	732
	733	class NodeAnim(Structure):
	734	"""
	735	See 'aiAnim.h' for details.
	736	"""
	737
	738	_fields_ = [
	739	# The name of the node affected by this animation. The node
	740	# must exist and it must be unique.
	741	("mNodeName", String),
	742
	743	# The number of position keys
	744	("mNumPositionKeys", c_uint),
	745
	746	# The position keys of this animation channel. Positions are
	747	# specified as 3D vector. The array is mNumPositionKeys in size.
	748	# If there are position keys, there will also be at least one
	749	# scaling and one rotation key.
	750	("mPositionKeys", POINTER(VectorKey)),
	751
	752	# The number of rotation keys
	753	("mNumRotationKeys", c_uint),
	754
	755	# The rotation keys of this animation channel. Rotations are
	756	# given as quaternions, which are 4D vectors. The array is
	757	# mNumRotationKeys in size.
	758	# If there are rotation keys, there will also be at least one
	759	# scaling and one position key.
	760	("mRotationKeys", POINTER(QuatKey)),
	761
	762	# The number of scaling keys
	763	("mNumScalingKeys", c_uint),
	764
	765	# The scaling keys of this animation channel. Scalings are
	766	# specified as 3D vector. The array is mNumScalingKeys in size.
	767	# If there are scaling keys, there will also be at least one
	768	# position and one rotation key.
	769	("mScalingKeys", POINTER(VectorKey)),
	770
	771	# Defines how the animation behaves before the first
	772	# key is encountered.
	773	# The default value is aiAnimBehaviour_DEFAULT (the original
	774	# transformation matrix of the affected node is used).
	775	("mPreState", c_uint),
	776
	777	# Defines how the animation behaves after the last
	778	# key was processed.
	779	# The default value is aiAnimBehaviour_DEFAULT (the original
	780	# transformation matrix of the affected node is taken).
	781	("mPostState", c_uint),
	782	]
	783
	784	class Animation(Structure):
	785	"""
	786	See 'aiAnim.h' for details.
	787	"""
	788
	789	_fields_ = [
	790	# The name of the animation. If the modeling package this data was
	791	# exported from does support only a single animation channel, this
	792	# name is usually empty (length is zero).
	793	("mName", String),
	794
	795	# Duration of the animation in ticks.
	796	("mDuration", c_double),
	797
	798	# Ticks per second. 0 if not specified in the imported file
	799	("mTicksPerSecond", c_double),
	800
	801	# The number of bone animation channels. Each channel affects
	802	# a single node.
	803	("mNumChannels", c_uint),
	804
	805	# The node animation channels. Each channel affects a single node.
	806	# The array is mNumChannels in size.
	807	("mChannels", POINTER(POINTER(NodeAnim))),
	808
	809	# The number of mesh animation channels. Each channel affects
	810	# a single mesh and defines vertex-based animation.
	811	("mNumMeshChannels", c_uint),
	812
	813	# The mesh animation channels. Each channel affects a single mesh.
	814	# The array is mNumMeshChannels in size.
	815	]
	816
	817	class Scene(Structure):
	818	"""
	819	See 'aiScene.h' for details.
	820	"""
	821
401	822	AI_SCENE_FLAGS_INCOMPLETE = 0x1
402	823	AI_SCENE_FLAGS_VALIDATED = 0x2
403	824	AI_SCENE_FLAGS_VALIDATION_WARNING = 0x4
404	825	AI_SCENE_FLAGS_NON_VERBOSE_FORMAT = 0x8
405	826	AI_SCENE_FLAGS_TERRAIN = 0x10
406
407		_fields_ = [
408		#Any combination of the AI_SCENE_FLAGS_XXX flags. By default#this value is 0, no flags are set. Most applications will#want to reject all scenes with the AI_SCENE_FLAGS_INCOMPLETE#bit set.#
409		("mFlags", c_uint),#The root node of the hierarchy.##There will always be at least the root node if the import#was successful (and no special flags have been set).#Presence of further nodes depends on the format and content#of the imported file.#
410		("mRootNode", POINTER(Node)),#The number of meshes in the scene.#
411		("mNumMeshes", c_uint),#The array of meshes.##Use the indices given in the aiNode structure to access#this array. The array is mNumMeshes in size. If the#AI_SCENE_FLAGS_INCOMPLETE flag is not set there will always#be at least ONE material.#
412		("mMeshes", POINTER(POINTER(Mesh))),#The number of materials in the scene.#
413		("mNumMaterials", c_uint),#The array of materials.##Use the index given in each aiMesh structure to access this#array. The array is mNumMaterials in size. If the#AI_SCENE_FLAGS_INCOMPLETE flag is not set there will always#be at least ONE material.#
414		("mMaterials", POINTER(POINTER(Material))),#The number of animations in the scene.#
415		("mNumAnimations", c_uint),#The array of animations.##All animations imported from the given file are listed here.#The array is mNumAnimations in size.#
416		("mAnimations", POINTER(POINTER(Animation))),#The number of textures embedded into the file#
417		("mNumTextures", c_uint),#The array of embedded textures.##Not many file formats embed their textures into the file.#An example is Quake's MDL format (which is also used by#some GameStudio versions)#
418		("mTextures", POINTER(POINTER(Texture))),#The number of light sources in the scene. Light sources#are fully optional, in most cases this attribute will be 0#
419		("mNumLights", c_uint),#The array of light sources.##All light sources imported from the given file are#listed here. The array is mNumLights in size.#
420		("mLights", POINTER(POINTER(Light))),#The number of cameras in the scene. Cameras#are fully optional, in most cases this attribute will be 0#
421		("mNumCameras", c_uint),#The array of cameras.##All cameras imported from the given file are listed here.#The array is mNumCameras in size. The first camera in the#array (if existing) is the default camera view into#the scene.#
422		("mCameras", POINTER(POINTER(Camera))),
423		]
	827
	828	_fields_ = [
	829	# Any combination of the AI_SCENE_FLAGS_XXX flags. By default
	830	# this value is 0, no flags are set. Most applications will
	831	# want to reject all scenes with the AI_SCENE_FLAGS_INCOMPLETE
	832	# bit set.
	833	("mFlags", c_uint),
	834
	835	# The root node of the hierarchy.
	836	# There will always be at least the root node if the import
	837	# was successful (and no special flags have been set).
	838	# Presence of further nodes depends on the format and content
	839	# of the imported file.
	840	("mRootNode", POINTER(Node)),
	841
	842	# The number of meshes in the scene.
	843	("mNumMeshes", c_uint),
	844
	845	# The array of meshes.
	846	# Use the indices given in the aiNode structure to access
	847	# this array. The array is mNumMeshes in size. If the
	848	# AI_SCENE_FLAGS_INCOMPLETE flag is not set there will always
	849	# be at least ONE material.
	850	("mMeshes", POINTER(POINTER(Mesh))),
	851
	852	# The number of materials in the scene.
	853	("mNumMaterials", c_uint),
	854
	855	# The array of materials.
	856	# Use the index given in each aiMesh structure to access this
	857	# array. The array is mNumMaterials in size. If the
	858	# AI_SCENE_FLAGS_INCOMPLETE flag is not set there will always
	859	# be at least ONE material.
	860	("mMaterials", POINTER(POINTER(Material))),
	861
	862	# The number of animations in the scene.
	863	("mNumAnimations", c_uint),
	864
	865	# The array of animations.
	866	# All animations imported from the given file are listed here.
	867	# The array is mNumAnimations in size.
	868	("mAnimations", POINTER(POINTER(Animation))),
	869
	870	# The number of textures embedded into the file
	871	("mNumTextures", c_uint),
	872
	873	# The array of embedded textures.
	874	# Not many file formats embed their textures into the file.
	875	# An example is Quake's MDL format (which is also used by
	876	# some GameStudio versions)
	877	("mTextures", POINTER(POINTER(Texture))),
	878
	879	# The number of light sources in the scene. Light sources
	880	# are fully optional, in most cases this attribute will be 0
	881	("mNumLights", c_uint),
	882
	883	# The array of light sources.
	884	# All light sources imported from the given file are
	885	# listed here. The array is mNumLights in size.
	886	("mLights", POINTER(POINTER(Light))),
	887
	888	# The number of cameras in the scene. Cameras
	889	# are fully optional, in most cases this attribute will be 0
	890	("mNumCameras", c_uint),
	891
	892	# The array of cameras.
	893	# All cameras imported from the given file are listed here.
	894	# The array is mNumCameras in size. The first camera in the
	895	# array (if existing) is the default camera view into
	896	# the scene.
	897	("mCameras", POINTER(POINTER(Camera))),
	898	]

-45

~~port/PyAssimp/quicktest.py~~ less more

0		#!/usr/bin/env python
1		#-- coding: UTF-8 --
2
3		"""
4		This module uses the sample.py script to load all test models it finds.
5
6		Note: this is not an exhaustive test suite, it does not check the
7		data structures in detail. It just verifies whether basic
8		loading and querying of 3d models using pyassimp works.
9		"""
10
11
12		import sys,os
13		import sample
14		from pyassimp import pyassimp,errors
15
16		# paths to be walkd recursively
17		basepaths = [os.path.join('..','..','test','models'), os.path.join('..','..','test','models-nonbsd')]
18
19		# file extensions to be considered
20		extensions = ['.3ds','.x','.lwo','.obj','.md5mesh','.dxf','.ply','.stl','.dae','.md5anim','.lws','.irrmesh','.nff','.off','.blend']
21
22		def run_tests():
23		ok,err = 0,0
24		for path in basepaths:
25		for root, dirs, files in os.walk(path):
26		for afile in files:
27		base,ext = os.path.splitext(afile)
28		if ext in extensions:
29		try:
30		sample.main(os.path.join(root,afile))
31		ok += 1
32		except errors.AssimpError as error:
33		# assimp error is fine, this is a controlled case
34		print error
35		err += 1
36		print '** Loaded %s models, got controlled errors for %s files' % (ok,err)
37
38
39		if __name__ == '__main__':
40		run_tests()
41
42
43
44

-71

~~port/PyAssimp/sample.py~~ less more

0		#!/usr/bin/env python
1		#-- coding: UTF-8 --
2
3		"""
4		This module demonstrates the functionality of PyAssimp.
5		"""
6
7
8		from pyassimp import pyassimp
9		import os, sys
10
11		#get a model out of assimp's test-data if none is provided on the command line
12		DEFAULT_MODEL = os.path.join(os.path.dirname(__file__),
13		"..", "..",
14		"test", "models", "MDL", "MDL3 (3DGS A4)", "minigun.MDL")
15
16		def main(filename=None):
17		filename = filename or DEFAULT_MODEL
18		scene = pyassimp.load(filename)
19
20		#the model we load
21		print "MODEL:", filename
22		print
23
24		#write some statistics
25		print "SCENE:"
26		print " meshes:", len(scene.meshes)
27		print " materials:", len(scene.materials)
28		print " textures:", len(scene.textures)
29		print
30
31		print "MESHES:"
32		for index, mesh in enumerate(scene.meshes):
33		print " MESH", index+1
34		print " material:", mesh.mMaterialIndex+1
35		print " vertices:", len(mesh.vertices)
36		print " first 3 verts:", mesh.vertices[:3]
37		#if len(mesh.normals):
38		# print " first 3 normals:", mesh.normals[:3]
39		print " colors:", len(mesh.colors)
40		tc = mesh.texcoords
41		print " texture-coords 1:", len(tc[0]), "first3:", tc[0][:3]
42		print " texture-coords 2:", len(tc[1]), "first3:", tc[1][:3]
43		print " texture-coords 3:", len(tc[2]), "first3:", tc[2][:3]
44		print " texture-coords 4:", len(tc[3]), "first3:", tc[3][:3]
45		print " uv-component-count:", len(mesh.mNumUVComponents)
46		print " faces:", len(mesh.faces), "first:", [f.indices for f in mesh.faces[:3]]
47		print " bones:", len(mesh.bones), "first:", [b.mName for b in mesh.bones[:3]]
48		print
49
50		print "MATERIALS:"
51		for index, material in enumerate(scene.materials):
52		print " MATERIAL", index+1
53		properties = pyassimp.GetMaterialProperties(material)
54		for key in properties:
55		print " %s: %s" % (key, properties[key])
56		print
57
58		print "TEXTURES:"
59		for index, texture in enumerate(scene.textures):
60		print " TEXTURE", index+1
61		print " width:", texture.mWidth
62		print " height:", texture.mHeight
63		print " hint:", texture.achFormatHint
64		print " data (size):", texture.mWidth*texture.mHeight
65
66		# Finally release the model
67		pyassimp.release(scene)
68
69		if __name__ == "__main__":
70		main(sys.argv[1] if len(sys.argv)>1 else None)

+415

-0

port/PyAssimp/scripts/3d_viewer.py less more

	0	#!/usr/bin/env python
	1	#-- coding: UTF-8 --
	2
	3	""" This program loads a model with PyASSIMP, and display it.
	4
	5	It make a large use of shaders to illustrate a 'modern' OpenGL pipeline.
	6
	7	Based on:
	8	- pygame + mouselook code from http://3dengine.org/Spectator_%28PyOpenGL%29
	9	- http://www.lighthouse3d.com/tutorials
	10	- http://www.songho.ca/opengl/gl_transform.html
	11	- http://code.activestate.com/recipes/325391/
	12	- ASSIMP's C++ SimpleOpenGL viewer
	13
	14	Authors: Séverin Lemaignan, 2012-2013
	15	"""
	16	import sys
	17
	18	import logging
	19	logger = logging.getLogger("pyassimp")
	20	gllogger = logging.getLogger("OpenGL")
	21	gllogger.setLevel(logging.WARNING)
	22	logging.basicConfig(level=logging.INFO)
	23
	24	import OpenGL
	25	OpenGL.ERROR_CHECKING=False
	26	OpenGL.ERROR_LOGGING = False
	27	#OpenGL.ERROR_ON_COPY = True
	28	#OpenGL.FULL_LOGGING = True
	29	from OpenGL.GL import *
	30	from OpenGL.error import GLError
	31	from OpenGL.GLU import *
	32	from OpenGL.GLUT import *
	33	from OpenGL.arrays import vbo
	34	from OpenGL.GL import shaders
	35
	36	import pygame
	37
	38	import math, random
	39	import numpy
	40	from numpy import linalg
	41
	42	import pyassimp
	43	from pyassimp.postprocess import *
	44	from pyassimp.helper import *
	45
	46	class DefaultCamera:
	47	def __init__(self, w, h, fov):
	48	self.clipplanenear = 0.001
	49	self.clipplanefar = 100000.0
	50	self.aspect = w/h
	51	self.horizontalfov = fov * math.pi/180
	52	self.transformation = [[ 0.68, -0.32, 0.65, 7.48],
	53	[ 0.73, 0.31, -0.61, -6.51],
	54	[-0.01, 0.89, 0.44, 5.34],
	55	[ 0., 0., 0., 1. ]]
	56	self.lookat = [0.0,0.0,-1.0]
	57
	58	def __str__(self):
	59	return "Default camera"
	60
	61	class PyAssimp3DViewer:
	62
	63	base_name = "PyASSIMP 3D viewer"
	64
	65	def __init__(self, model, w=1024, h=768, fov=75):
	66
	67	pygame.init()
	68	pygame.display.set_caption(self.base_name)
	69	pygame.display.set_mode((w,h), pygame.OPENGL \| pygame.DOUBLEBUF)
	70
	71	self.prepare_shaders()
	72
	73	self.cameras = [DefaultCamera(w,h,fov)]
	74	self.current_cam_index = 0
	75
	76	self.load_model(model)
	77
	78	# for FPS computation
	79	self.frames = 0
	80	self.last_fps_time = glutGet(GLUT_ELAPSED_TIME)
	81
	82
	83	self.cycle_cameras()
	84
	85	def prepare_shaders(self):
	86
	87	phong_weightCalc = """
	88	float phong_weightCalc(
	89	in vec3 light_pos, // light position
	90	in vec3 frag_normal // geometry normal
	91	) {
	92	// returns vec2( ambientMult, diffuseMult )
	93	float n_dot_pos = max( 0.0, dot(
	94	frag_normal, light_pos
	95	));
	96	return n_dot_pos;
	97	}
	98	"""
	99
	100	vertex = shaders.compileShader( phong_weightCalc +
	101	"""
	102	uniform vec4 Global_ambient;
	103	uniform vec4 Light_ambient;
	104	uniform vec4 Light_diffuse;
	105	uniform vec3 Light_location;
	106	uniform vec4 Material_ambient;
	107	uniform vec4 Material_diffuse;
	108	attribute vec3 Vertex_position;
	109	attribute vec3 Vertex_normal;
	110	varying vec4 baseColor;
	111	void main() {
	112	gl_Position = gl_ModelViewProjectionMatrix * vec4(
	113	Vertex_position, 1.0
	114	);
	115	vec3 EC_Light_location = gl_NormalMatrix * Light_location;
	116	float diffuse_weight = phong_weightCalc(
	117	normalize(EC_Light_location),
	118	normalize(gl_NormalMatrix * Vertex_normal)
	119	);
	120	baseColor = clamp(
	121	(
	122	// global component
	123	(Global_ambient * Material_ambient)
	124	// material's interaction with light's contribution
	125	// to the ambient lighting...
	126	+ (Light_ambient * Material_ambient)
	127	// material's interaction with the direct light from
	128	// the light.
	129	+ (Light_diffuse * Material_diffuse * diffuse_weight)
	130	), 0.0, 1.0);
	131	}""", GL_VERTEX_SHADER)
	132
	133	fragment = shaders.compileShader("""
	134	varying vec4 baseColor;
	135	void main() {
	136	gl_FragColor = baseColor;
	137	}
	138	""", GL_FRAGMENT_SHADER)
	139
	140	self.shader = shaders.compileProgram(vertex,fragment)
	141	self.set_shader_accessors( (
	142	'Global_ambient',
	143	'Light_ambient','Light_diffuse','Light_location',
	144	'Material_ambient','Material_diffuse',
	145	), (
	146	'Vertex_position','Vertex_normal',
	147	), self.shader)
	148
	149	def set_shader_accessors(self, uniforms, attributes, shader):
	150	# add accessors to the shaders uniforms and attributes
	151	for uniform in uniforms:
	152	location = glGetUniformLocation( shader, uniform )
	153	if location in (None,-1):
	154	logger.warning('No uniform: %s'%( uniform ))
	155	setattr( shader, uniform, location )
	156
	157	for attribute in attributes:
	158	location = glGetAttribLocation( shader, attribute )
	159	if location in (None,-1):
	160	logger.warning('No attribute: %s'%( attribute ))
	161	setattr( shader, attribute, location )
	162
	163
	164	def prepare_gl_buffers(self, mesh):
	165
	166	mesh.gl = {}
	167
	168	# Fill the buffer for vertex and normals positions
	169	v = numpy.array(mesh.vertices, 'f')
	170	n = numpy.array(mesh.normals, 'f')
	171
	172	mesh.gl["vbo"] = vbo.VBO(numpy.hstack((v,n)))
	173
	174	# Fill the buffer for vertex positions
	175	mesh.gl["faces"] = glGenBuffers(1)
	176	glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, mesh.gl["faces"])
	177	glBufferData(GL_ELEMENT_ARRAY_BUFFER,
	178	mesh.faces,
	179	GL_STATIC_DRAW)
	180	glBindBuffer(GL_ELEMENT_ARRAY_BUFFER,0)
	181
	182
	183	def load_model(self, path, postprocess = aiProcessPreset_TargetRealtime_MaxQuality):
	184	logger.info("Loading model:" + path + "...")
	185
	186	if postprocess:
	187	self.scene = pyassimp.load(path, postprocess)
	188	else:
	189	self.scene = pyassimp.load(path)
	190	logger.info("Done.")
	191
	192	scene = self.scene
	193	#log some statistics
	194	logger.info(" meshes: %d" % len(scene.meshes))
	195	logger.info(" total faces: %d" % sum([len(mesh.faces) for mesh in scene.meshes]))
	196	logger.info(" materials: %d" % len(scene.materials))
	197	self.bb_min, self.bb_max = get_bounding_box(self.scene)
	198	logger.info(" bounding box:" + str(self.bb_min) + " - " + str(self.bb_max))
	199
	200	self.scene_center = [(a + b) / 2. for a, b in zip(self.bb_min, self.bb_max)]
	201
	202	for index, mesh in enumerate(scene.meshes):
	203	self.prepare_gl_buffers(mesh)
	204
	205	# Finally release the model
	206	pyassimp.release(scene)
	207
	208	logger.info("Ready for 3D rendering!")
	209
	210	def cycle_cameras(self):
	211	if not self.cameras:
	212	logger.info("No camera in the scene")
	213	return None
	214	self.current_cam_index = (self.current_cam_index + 1) % len(self.cameras)
	215	self.current_cam = self.cameras[self.current_cam_index]
	216	self.set_camera(self.current_cam)
	217	logger.info("Switched to camera <%s>" % self.current_cam)
	218
	219	def set_camera_projection(self, camera = None):
	220
	221	if not camera:
	222	camera = self.cameras[self.current_cam_index]
	223
	224	znear = camera.clipplanenear
	225	zfar = camera.clipplanefar
	226	aspect = camera.aspect
	227	fov = camera.horizontalfov
	228
	229	glMatrixMode(GL_PROJECTION)
	230	glLoadIdentity()
	231
	232	# Compute gl frustrum
	233	tangent = math.tan(fov/2.)
	234	h = znear * tangent
	235	w = h * aspect
	236
	237	# params: left, right, bottom, top, near, far
	238	glFrustum(-w, w, -h, h, znear, zfar)
	239	# equivalent to:
	240	#gluPerspective(fov * 180/math.pi, aspect, znear, zfar)
	241	glMatrixMode(GL_MODELVIEW)
	242	glLoadIdentity()
	243
	244
	245	def set_camera(self, camera):
	246
	247	self.set_camera_projection(camera)
	248
	249	glMatrixMode(GL_MODELVIEW)
	250	glLoadIdentity()
	251
	252	cam = transform([0.0, 0.0, 0.0], camera.transformation)
	253	at = transform(camera.lookat, camera.transformation)
	254	gluLookAt(cam[0], cam[2], -cam[1],
	255	at[0], at[2], -at[1],
	256	0, 1, 0)
	257
	258	def render(self, wireframe = False, twosided = False):
	259
	260	glEnable(GL_DEPTH_TEST)
	261	glDepthFunc(GL_LEQUAL)
	262
	263
	264	glPolygonMode(GL_FRONT_AND_BACK, GL_LINE if wireframe else GL_FILL)
	265	glDisable(GL_CULL_FACE) if twosided else glEnable(GL_CULL_FACE)
	266
	267	shader = self.shader
	268
	269	glUseProgram(shader)
	270	glUniform4f( shader.Global_ambient, .4,.2,.2,.1 )
	271	glUniform4f( shader.Light_ambient, .4,.4,.4, 1.0 )
	272	glUniform4f( shader.Light_diffuse, 1,1,1,1 )
	273	glUniform3f( shader.Light_location, 2,2,10 )
	274
	275	self.recursive_render(self.scene.rootnode, shader)
	276
	277
	278	glUseProgram( 0 )
	279
	280	def recursive_render(self, node, shader):
	281	""" Main recursive rendering method.
	282	"""
	283
	284	# save model matrix and apply node transformation
	285	glPushMatrix()
	286	m = node.transformation.transpose() # OpenGL row major
	287	glMultMatrixf(m)
	288
	289	for mesh in node.meshes:
	290
	291	stride = 24 # 6 * 4 bytes
	292
	293	diffuse = mesh.material.properties["diffuse"]
	294	if len(diffuse) == 3: diffuse.append(1.0)
	295	ambient = mesh.material.properties["ambient"]
	296	if len(ambient) == 3: ambient.append(1.0)
	297
	298	glUniform4f( shader.Material_diffuse, *diffuse )
	299	glUniform4f( shader.Material_ambient, *ambient )
	300
	301	vbo = mesh.gl["vbo"]
	302	vbo.bind()
	303
	304	glEnableVertexAttribArray( shader.Vertex_position )
	305	glEnableVertexAttribArray( shader.Vertex_normal )
	306
	307	glVertexAttribPointer(
	308	shader.Vertex_position,
	309	3, GL_FLOAT,False, stride, vbo
	310	)
	311
	312	glVertexAttribPointer(
	313	shader.Vertex_normal,
	314	3, GL_FLOAT,False, stride, vbo+12
	315	)
	316
	317	glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, mesh.gl["faces"])
	318	glDrawElements(GL_TRIANGLES, len(mesh.faces) * 3, GL_UNSIGNED_INT, None)
	319
	320
	321	vbo.unbind()
	322	glDisableVertexAttribArray( shader.Vertex_position )
	323
	324	glDisableVertexAttribArray( shader.Vertex_normal )
	325
	326
	327	glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, 0)
	328
	329	for child in node.children:
	330	self.recursive_render(child, shader)
	331
	332	glPopMatrix()
	333
	334
	335	def loop(self):
	336
	337	pygame.display.flip()
	338	pygame.event.pump()
	339	self.keys = [k for k, pressed in enumerate(pygame.key.get_pressed()) if pressed]
	340
	341	glClear(GL_COLOR_BUFFER_BIT \| GL_DEPTH_BUFFER_BIT)
	342
	343	# Compute FPS
	344	gl_time = glutGet(GLUT_ELAPSED_TIME)
	345	self.frames += 1
	346	if gl_time - self.last_fps_time >= 1000:
	347	current_fps = self.frames * 1000 / (gl_time - self.last_fps_time)
	348	pygame.display.set_caption(self.base_name + " - %.0f fps" % current_fps)
	349	self.frames = 0
	350	self.last_fps_time = gl_time
	351
	352
	353	return True
	354
	355	def controls_3d(self,
	356	mouse_button=1, \
	357	up_key=pygame.K_UP, \
	358	down_key=pygame.K_DOWN, \
	359	left_key=pygame.K_LEFT, \
	360	right_key=pygame.K_RIGHT):
	361	""" The actual camera setting cycle """
	362	mouse_dx,mouse_dy = pygame.mouse.get_rel()
	363	if pygame.mouse.get_pressed()[mouse_button]:
	364	look_speed = .2
	365	buffer = glGetDoublev(GL_MODELVIEW_MATRIX)
	366	c = (-1 * numpy.mat(buffer[:3,:3]) * \
	367	numpy.mat(buffer[3,:3]).T).reshape(3,1)
	368	# c is camera center in absolute coordinates,
	369	# we need to move it back to (0,0,0)
	370	# before rotating the camera
	371	glTranslate(c[0],c[1],c[2])
	372	m = buffer.flatten()
	373	glRotate(mouse_dx * look_speed, m[1],m[5],m[9])
	374	glRotate(mouse_dy * look_speed, m[0],m[4],m[8])
	375
	376	# compensate roll
	377	glRotated(-math.atan2(-m[4],m[5]) * \
	378	57.295779513082320876798154814105 ,m[2],m[6],m[10])
	379	glTranslate(-c[0],-c[1],-c[2])
	380
	381	# move forward-back or right-left
	382	if up_key in self.keys:
	383	fwd = .1
	384	elif down_key in self.keys:
	385	fwd = -.1
	386	else:
	387	fwd = 0
	388
	389	if left_key in self.keys:
	390	strafe = .1
	391	elif right_key in self.keys:
	392	strafe = -.1
	393	else:
	394	strafe = 0
	395
	396	if abs(fwd) or abs(strafe):
	397	m = glGetDoublev(GL_MODELVIEW_MATRIX).flatten()
	398	glTranslate(fwdm[2],fwdm[6],fwd*m[10])
	399	glTranslate(strafem[0],strafem[4],strafe*m[8])
	400
	401	if __name__ == '__main__':
	402	if not len(sys.argv) > 1:
	403	print("Usage: " + __file__ + " <model>")
	404	sys.exit(2)
	405
	406	app = PyAssimp3DViewer(model = sys.argv[1], w = 1024, h = 768, fov = 75)
	407
	408	while app.loop():
	409	app.render()
	410	app.controls_3d(0)
	411	if pygame.K_f in app.keys: pygame.display.toggle_fullscreen()
	412	if pygame.K_TAB in app.keys: app.cycle_cameras()
	413	if pygame.K_ESCAPE in app.keys:
	414	break

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port/PyAssimp/scripts/README.md less more

	0	pyassimp examples
	1	=================
	2
	3	- `sample.py`: shows how to load a model with pyassimp, and display some statistics.
	4	- `3d_viewer.py`: an OpenGL 3D viewer that requires shaders
	5	- `fixed_pipeline_3d_viewer`: an OpenGL 3D viewer using the old fixed-pipeline.
	6	Only for illustration example. Base new projects on `3d_viewer.py`.
	7
	8
	9	Requirements for the 3D viewers:
	10
	11	- `pyopengl` (on Ubuntu/Debian, `sudo apt-get install python-opengl`)
	12	- `pygame` (on Ubuntu/Debian, `sudo apt-get install python-pygame`)

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port/PyAssimp/scripts/fixed_pipeline_3d_viewer.py less more

	0	#!/usr/bin/env python
	1	#-- coding: UTF-8 --
	2
	3	""" This program demonstrates the use of pyassimp to load and
	4	render objects with OpenGL.
	5
	6	'c' cycles between cameras (if any available)
	7	'q' to quit
	8
	9	This example mixes 'old' OpenGL fixed-function pipeline with
	10	Vertex Buffer Objects.
	11
	12	Materials are supported but textures are currently ignored.
	13
	14	For a more advanced example (with shaders + keyboard/mouse
	15	controls), check scripts/sdl_viewer.py
	16
	17	Author: Séverin Lemaignan, 2012
	18
	19	This sample is based on several sources, including:
	20	- http://www.lighthouse3d.com/tutorials
	21	- http://www.songho.ca/opengl/gl_transform.html
	22	- http://code.activestate.com/recipes/325391/
	23	- ASSIMP's C++ SimpleOpenGL viewer
	24	"""
	25
	26	import os, sys
	27	from OpenGL.GLUT import *
	28	from OpenGL.GLU import *
	29	from OpenGL.GL import *
	30
	31	import logging;logger = logging.getLogger("pyassimp_opengl")
	32	logging.basicConfig(level=logging.INFO)
	33
	34	import math
	35	import numpy
	36
	37	import pyassimp
	38	from pyassimp.postprocess import *
	39	from pyassimp.helper import *
	40
	41
	42	name = 'pyassimp OpenGL viewer'
	43	height = 600
	44	width = 900
	45
	46	class GLRenderer():
	47	def __init__(self):
	48
	49	self.scene = None
	50
	51	self.using_fixed_cam = False
	52	self.current_cam_index = 0
	53
	54	# store the global scene rotation
	55	self.angle = 0.
	56
	57	# for FPS calculation
	58	self.prev_time = 0
	59	self.prev_fps_time = 0
	60	self.frames = 0
	61
	62	def prepare_gl_buffers(self, mesh):
	63	""" Creates 3 buffer objets for each mesh,
	64	to store the vertices, the normals, and the faces
	65	indices.
	66	"""
	67
	68	mesh.gl = {}
	69
	70	# Fill the buffer for vertex positions
	71	mesh.gl["vertices"] = glGenBuffers(1)
	72	glBindBuffer(GL_ARRAY_BUFFER, mesh.gl["vertices"])
	73	glBufferData(GL_ARRAY_BUFFER,
	74	mesh.vertices,
	75	GL_STATIC_DRAW)
	76
	77	# Fill the buffer for normals
	78	mesh.gl["normals"] = glGenBuffers(1)
	79	glBindBuffer(GL_ARRAY_BUFFER, mesh.gl["normals"])
	80	glBufferData(GL_ARRAY_BUFFER,
	81	mesh.normals,
	82	GL_STATIC_DRAW)
	83
	84
	85	# Fill the buffer for vertex positions
	86	mesh.gl["triangles"] = glGenBuffers(1)
	87	glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, mesh.gl["triangles"])
	88	glBufferData(GL_ELEMENT_ARRAY_BUFFER,
	89	mesh.faces,
	90	GL_STATIC_DRAW)
	91
	92	# Unbind buffers
	93	glBindBuffer(GL_ARRAY_BUFFER,0)
	94	glBindBuffer(GL_ELEMENT_ARRAY_BUFFER,0)
	95
	96	def load_model(self, path, postprocess = None):
	97	logger.info("Loading model:" + path + "...")
	98
	99	if postprocess:
	100	self.scene = pyassimp.load(path, postprocess)
	101	else:
	102	self.scene = pyassimp.load(path)
	103	logger.info("Done.")
	104
	105	scene = self.scene
	106	#log some statistics
	107	logger.info(" meshes: %d" % len(scene.meshes))
	108	logger.info(" total faces: %d" % sum([len(mesh.faces) for mesh in scene.meshes]))
	109	logger.info(" materials: %d" % len(scene.materials))
	110	self.bb_min, self.bb_max = get_bounding_box(self.scene)
	111	logger.info(" bounding box:" + str(self.bb_min) + " - " + str(self.bb_max))
	112
	113	self.scene_center = [(a + b) / 2. for a, b in zip(self.bb_min, self.bb_max)]
	114
	115	for index, mesh in enumerate(scene.meshes):
	116	self.prepare_gl_buffers(mesh)
	117
	118	# Finally release the model
	119	pyassimp.release(scene)
	120
	121	def cycle_cameras(self):
	122	self.current_cam_index
	123	if not self.scene.cameras:
	124	return None
	125	self.current_cam_index = (self.current_cam_index + 1) % len(self.scene.cameras)
	126	cam = self.scene.cameras[self.current_cam_index]
	127	logger.info("Switched to camera " + str(cam))
	128	return cam
	129
	130	def set_default_camera(self):
	131
	132	if not self.using_fixed_cam:
	133	glLoadIdentity()
	134
	135	gluLookAt(0.,0.,3.,
	136	0.,0.,-5.,
	137	0.,1.,0.)
	138
	139
	140
	141	def set_camera(self, camera):
	142
	143	if not camera:
	144	return
	145
	146	self.using_fixed_cam = True
	147
	148	znear = camera.clipplanenear
	149	zfar = camera.clipplanefar
	150	aspect = camera.aspect
	151	fov = camera.horizontalfov
	152
	153	glMatrixMode(GL_PROJECTION)
	154	glLoadIdentity()
	155
	156	# Compute gl frustrum
	157	tangent = math.tan(fov/2.)
	158	h = znear * tangent
	159	w = h * aspect
	160
	161	# params: left, right, bottom, top, near, far
	162	glFrustum(-w, w, -h, h, znear, zfar)
	163	# equivalent to:
	164	#gluPerspective(fov * 180/math.pi, aspect, znear, zfar)
	165
	166	glMatrixMode(GL_MODELVIEW)
	167	glLoadIdentity()
	168
	169	cam = transform(camera.position, camera.transformation)
	170	at = transform(camera.lookat, camera.transformation)
	171	gluLookAt(cam[0], cam[2], -cam[1],
	172	at[0], at[2], -at[1],
	173	0, 1, 0)
	174
	175	def fit_scene(self, restore = False):
	176	""" Compute a scale factor and a translation to fit and center
	177	the whole geometry on the screen.
	178	"""
	179
	180	x_max = self.bb_max[0] - self.bb_min[0]
	181	y_max = self.bb_max[1] - self.bb_min[1]
	182	tmp = max(x_max, y_max)
	183	z_max = self.bb_max[2] - self.bb_min[2]
	184	tmp = max(z_max, tmp)
	185
	186	if not restore:
	187	tmp = 1. / tmp
	188
	189	logger.info("Scaling the scene by %.03f" % tmp)
	190	glScalef(tmp, tmp, tmp)
	191
	192	# center the model
	193	direction = -1 if not restore else 1
	194	glTranslatef( direction * self.scene_center[0],
	195	direction * self.scene_center[1],
	196	direction * self.scene_center[2] )
	197
	198	return x_max, y_max, z_max
	199
	200	def apply_material(self, mat):
	201	""" Apply an OpenGL, using one OpenGL display list per material to cache
	202	the operation.
	203	"""
	204
	205	if not hasattr(mat, "gl_mat"): # evaluate once the mat properties, and cache the values in a glDisplayList.
	206	diffuse = numpy.array(mat.properties.get("diffuse", [0.8, 0.8, 0.8, 1.0]))
	207	specular = numpy.array(mat.properties.get("specular", [0., 0., 0., 1.0]))
	208	ambient = numpy.array(mat.properties.get("ambient", [0.2, 0.2, 0.2, 1.0]))
	209	emissive = numpy.array(mat.properties.get("emissive", [0., 0., 0., 1.0]))
	210	shininess = min(mat.properties.get("shininess", 1.0), 128)
	211	wireframe = mat.properties.get("wireframe", 0)
	212	twosided = mat.properties.get("twosided", 1)
	213
	214	setattr(mat, "gl_mat", glGenLists(1))
	215	glNewList(mat.gl_mat, GL_COMPILE)
	216
	217	glMaterialfv(GL_FRONT_AND_BACK, GL_DIFFUSE, diffuse)
	218	glMaterialfv(GL_FRONT_AND_BACK, GL_SPECULAR, specular)
	219	glMaterialfv(GL_FRONT_AND_BACK, GL_AMBIENT, ambient)
	220	glMaterialfv(GL_FRONT_AND_BACK, GL_EMISSION, emissive)
	221	glMaterialf(GL_FRONT_AND_BACK, GL_SHININESS, shininess)
	222	glPolygonMode(GL_FRONT_AND_BACK, GL_LINE if wireframe else GL_FILL)
	223	glDisable(GL_CULL_FACE) if twosided else glEnable(GL_CULL_FACE)
	224
	225	glEndList()
	226
	227	glCallList(mat.gl_mat)
	228
	229
	230
	231	def do_motion(self):
	232
	233	gl_time = glutGet(GLUT_ELAPSED_TIME)
	234
	235	self.angle = (gl_time - self.prev_time) * 0.1
	236
	237	self.prev_time = gl_time
	238
	239	# Compute FPS
	240	self.frames += 1
	241	if gl_time - self.prev_fps_time >= 1000:
	242	current_fps = self.frames * 1000 / (gl_time - self.prev_fps_time)
	243	logger.info('%.0f fps' % current_fps)
	244	self.frames = 0
	245	self.prev_fps_time = gl_time
	246
	247	glutPostRedisplay()
	248
	249	def recursive_render(self, node):
	250	""" Main recursive rendering method.
	251	"""
	252
	253	# save model matrix and apply node transformation
	254	glPushMatrix()
	255	m = node.transformation.transpose() # OpenGL row major
	256	glMultMatrixf(m)
	257
	258	for mesh in node.meshes:
	259	self.apply_material(mesh.material)
	260
	261	glBindBuffer(GL_ARRAY_BUFFER, mesh.gl["vertices"])
	262	glEnableClientState(GL_VERTEX_ARRAY)
	263	glVertexPointer(3, GL_FLOAT, 0, None)
	264
	265	glBindBuffer(GL_ARRAY_BUFFER, mesh.gl["normals"])
	266	glEnableClientState(GL_NORMAL_ARRAY)
	267	glNormalPointer(GL_FLOAT, 0, None)
	268
	269	glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, mesh.gl["triangles"])
	270	glDrawElements(GL_TRIANGLES,len(mesh.faces) * 3, GL_UNSIGNED_INT, None)
	271
	272	glDisableClientState(GL_VERTEX_ARRAY)
	273	glDisableClientState(GL_NORMAL_ARRAY)
	274
	275	glBindBuffer(GL_ARRAY_BUFFER, 0)
	276	glBindBuffer(GL_ELEMENT_ARRAY_BUFFER, 0)
	277
	278	for child in node.children:
	279	self.recursive_render(child)
	280
	281	glPopMatrix()
	282
	283
	284	def display(self):
	285	""" GLUT callback to redraw OpenGL surface
	286	"""
	287	glClear(GL_COLOR_BUFFER_BIT\|GL_DEPTH_BUFFER_BIT)
	288
	289	glRotatef(self.angle,0.,1.,0.)
	290	self.recursive_render(self.scene.rootnode)
	291
	292	glutSwapBuffers()
	293	self.do_motion()
	294	return
	295
	296	####################################################################
	297	## GLUT keyboard and mouse callbacks ##
	298	####################################################################
	299	def onkeypress(self, key, x, y):
	300	if key == 'c':
	301	self.fit_scene(restore = True)
	302	self.set_camera(self.cycle_cameras())
	303	if key == 'q':
	304	sys.exit(0)
	305
	306	def render(self, filename=None, fullscreen = False, autofit = True, postprocess = None):
	307	"""
	308
	309	:param autofit: if true, scale the scene to fit the whole geometry
	310	in the viewport.
	311	"""
	312
	313	# First initialize the openGL context
	314	glutInit(sys.argv)
	315	glutInitDisplayMode(GLUT_DOUBLE \| GLUT_RGB \| GLUT_DEPTH)
	316	if not fullscreen:
	317	glutInitWindowSize(width, height)
	318	glutCreateWindow(name)
	319	else:
	320	glutGameModeString("1024x768")
	321	if glutGameModeGet(GLUT_GAME_MODE_POSSIBLE):
	322	glutEnterGameMode()
	323	else:
	324	print("Fullscreen mode not available!")
	325	sys.exit(1)
	326
	327	self.load_model(filename, postprocess = postprocess)
	328
	329
	330	glClearColor(0.1,0.1,0.1,1.)
	331	#glShadeModel(GL_SMOOTH)
	332
	333	glEnable(GL_LIGHTING)
	334
	335	glEnable(GL_CULL_FACE)
	336	glEnable(GL_DEPTH_TEST)
	337
	338	glLightModeli(GL_LIGHT_MODEL_TWO_SIDE, GL_TRUE)
	339	glEnable(GL_NORMALIZE)
	340	glEnable(GL_LIGHT0)
	341
	342	glutDisplayFunc(self.display)
	343
	344
	345	glMatrixMode(GL_PROJECTION)
	346	glLoadIdentity()
	347	gluPerspective(35.0, width/float(height) , 0.10, 100.0)
	348	glMatrixMode(GL_MODELVIEW)
	349	self.set_default_camera()
	350
	351	if autofit:
	352	# scale the whole asset to fit into our view frustum·
	353	self.fit_scene()
	354
	355	glPushMatrix()
	356
	357	glutKeyboardFunc(self.onkeypress)
	358	glutIgnoreKeyRepeat(1)
	359
	360	glutMainLoop()
	361
	362
	363	if __name__ == '__main__':
	364	if not len(sys.argv) > 1:
	365	print("Usage: " + __file__ + " <model>")
	366	sys.exit(0)
	367
	368	glrender = GLRenderer()
	369	glrender.render(sys.argv[1], fullscreen = False, postprocess = aiProcessPreset_TargetRealtime_MaxQuality)
	370

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port/PyAssimp/scripts/quicktest.py less more

	0	#!/usr/bin/env python
	1	#-- coding: UTF-8 --
	2
	3	"""
	4	This module uses the sample.py script to load all test models it finds.
	5
	6	Note: this is not an exhaustive test suite, it does not check the
	7	data structures in detail. It just verifies whether basic
	8	loading and querying of 3d models using pyassimp works.
	9	"""
	10
	11
	12	import sys,os
	13	import sample
	14	from pyassimp import errors
	15
	16	# paths to be walkd recursively
	17	basepaths = [os.path.join('..','..','..','test','models'), os.path.join('..','..','..','test','models-nonbsd')]
	18
	19	# file extensions to be considered
	20	extensions = ['.3ds','.x','.lwo','.obj','.md5mesh','.dxf','.ply','.stl','.dae','.md5anim','.lws','.irrmesh','.nff','.off','.blend']
	21
	22	def run_tests():
	23	ok,err = 0,0
	24	for path in basepaths:
	25	print("Looking for models in %s..." % path)
	26	for root, dirs, files in os.walk(path):
	27	for afile in files:
	28	base,ext = os.path.splitext(afile)
	29	if ext in extensions:
	30	try:
	31	sample.main(os.path.join(root,afile))
	32	ok += 1
	33	except errors.AssimpError as error:
	34	# assimp error is fine, this is a controlled case
	35	print error
	36	err += 1
	37	except Exception:
	38	print("Error encountered while loading <%s>"%os.path.join(root,afile))
	39	print('** Loaded %s models, got controlled errors for %s files' % (ok,err))
	40
	41
	42	if __name__ == '__main__':
	43	run_tests()
	44
	45
	46
	47

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port/PyAssimp/scripts/sample.py less more

	0	#!/usr/bin/env python
	1	#-- coding: UTF-8 --
	2
	3	"""
	4	This module demonstrates the functionality of PyAssimp.
	5	"""
	6
	7	import os, sys
	8	import logging
	9	logging.basicConfig(level=logging.INFO)
	10
	11	import pyassimp
	12	import pyassimp.postprocess
	13
	14	def recur_node(node,level = 0):
	15	print(" " + "\t" * level + "- " + str(node))
	16	for child in node.children:
	17	recur_node(child, level + 1)
	18
	19
	20	def main(filename=None):
	21
	22	scene = pyassimp.load(filename, pyassimp.postprocess.aiProcess_Triangulate)
	23
	24	#the model we load
	25	print("MODEL:" + filename)
	26	print
	27
	28	#write some statistics
	29	print("SCENE:")
	30	print(" meshes:" + str(len(scene.meshes)))
	31	print(" materials:" + str(len(scene.materials)))
	32	print(" textures:" + str(len(scene.textures)))
	33	print
	34
	35	print("NODES:")
	36	recur_node(scene.rootnode)
	37
	38	print
	39	print("MESHES:")
	40	for index, mesh in enumerate(scene.meshes):
	41	print(" MESH" + str(index+1))
	42	print(" material id:" + str(mesh.materialindex+1))
	43	print(" vertices:" + str(len(mesh.vertices)))
	44	print(" first 3 verts:\n" + str(mesh.vertices[:3]))
	45	if mesh.normals.any():
	46	print(" first 3 normals:\n" + str(mesh.normals[:3]))
	47	else:
	48	print(" no normals")
	49	print(" colors:" + str(len(mesh.colors)))
	50	tcs = mesh.texturecoords
	51	if tcs.any():
	52	for index, tc in enumerate(tcs):
	53	print(" texture-coords "+ str(index) + ":" + str(len(tcs[index])) + "first3:" + str(tcs[index][:3]))
	54
	55	else:
	56	print(" no texture coordinates")
	57	print(" uv-component-count:" + str(len(mesh.numuvcomponents)))
	58	print(" faces:" + str(len(mesh.faces)) + " -> first:\n" + str(mesh.faces[:3]))
	59	print(" bones:" + str(len(mesh.bones)) + " -> first:" + str([str(b) for b in mesh.bones[:3]]))
	60	print
	61
	62	print("MATERIALS:")
	63	for index, material in enumerate(scene.materials):
	64	print(" MATERIAL (id:" + str(index+1) + ")")
	65	for key, value in material.properties.items():
	66	print(" %s: %s" % (key, value))
	67	print
	68
	69	print("TEXTURES:")
	70	for index, texture in enumerate(scene.textures):
	71	print(" TEXTURE" + str(index+1))
	72	print(" width:" + str(texture.width))
	73	print(" height:" + str(texture.height))
	74	print(" hint:" + str(texture.achformathint))
	75	print(" data (size):" + str(len(texture.data)))
	76
	77	# Finally release the model
	78	pyassimp.release(scene)
	79
	80	def usage():
	81	print("Usage: sample.py <3d model>")
	82
	83	if __name__ == "__main__":
	84
	85	if len(sys.argv) != 2:
	86	usage()
	87	else:
	88	main(sys.argv[1])

+13

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port/PyAssimp/setup.py less more

	0	# -- coding: utf-8 --
	1	import os
	2	from distutils.core import setup
	3
	4	setup(name='pyassimp',
	5	version='0.1',
	6	license='ISC',
	7	description='Python bindings for the Open Asset Import Library (ASSIMP)',
	8	url='http://assimp.sourceforge.net/',
	9	packages=['pyassimp'],
	10	data_files=[('share/pyassimp', ['README.md']),
	11	('share/examples/pyassimp', ['scripts/' + f for f in os.listdir('scripts/')])]
	12	)

-65

~~port/PyAssimp3/README~~ less more

0		PyAssimp3 Readme
1		---------------
2
3
4		-- a simple Python3 wrapper for Assimp using ctypes to access
5		the library. Works with Python 3 upwards.
6
7
8		Note that pyassimp is by no means considered mature. It works,
9		but it is far away from wrapping Assimp perfectly.
10
11
12		USAGE
13		=====
14
15		To get started with pyAssimp, examine the sample.py script, which
16		illustrates the basic usage. All Assimp data structures are
17		wrapped using ctypes. All the data+length fields in Assimp's
18		data structures (such as 'aiMesh::mNumVertices','aiMesh::mVertices')
19		are replaced by simple python lists, so you can call len() on
20		them to get their respective size and access members using
21		[].
22
23		For example, to load a file named 'hello.3ds' and print the first
24		vertex of the first mesh, you would do (proper error handling
25		substituted by assertions ...):
26
27		> from pyassimp import pyassimp, errors
28		>
29		> try:
30		> scene = pyassimp.load('hello.3ds')
31		> except AssimpError, msg:
32		> print(msg)
33		> return
34
35		> assert len(scene.meshes)
36		> mesh = scene.meshes[0]
37
38		> assert len(mesh.vertices)
39		> print(mesh.vertices[0])
40
41		> # don't forget this one, or you will leak!
42		> pyassimp.release(scene)
43
44
45		INSTALL
46		=======
47
48		PyAssimp requires a assimp dynamic library (DLL on windows,
49		so on linux :-) in order to work. The default search directories
50		are:
51
52		- the current directory
53		- on linux additionally: /usr/local/lib
54
55		To build that library, refer to the Assimp master INSTALL
56		instructions. To look in more places, edit ./pyassimp/helper.py.
57		There's an 'additional_dirs' list waiting for your entries.
58
59
60
61
62
63
64

-1

~~port/PyAssimp3/pyassimp/__init__.py~~ less more

#-*- coding: UTF-8 -*-

-11

~~port/PyAssimp3/pyassimp/errors.py~~ less more

0		#-- coding: UTF-8 --
1
2		"""
3		All possible errors.
4		"""
5
6		class AssimpError(BaseException):
7		"""
8		If an internal error occures.
9		"""
10		pass⏎

-119

~~port/PyAssimp3/pyassimp/helper.py~~ less more

0		#-- coding: UTF-8 --
1
2		"""
3		Some fancy helper functions.
4		"""
5
6		import os, sys
7		import ctypes
8		from . import structs
9		import operator
10
11		from .errors import AssimpError
12		from ctypes import POINTER
13
14		additional_dirs, ext_whitelist = [],[]
15
16		# populate search directories and lists of allowed file extensions
17		# depending on the platform we're running on.
18		if os.name=='posix':
19		additional_dirs.append('/usr/local/lib/')
20
21		if sys.platform.lower() == 'darwin':
22		ext_whitelist.append('.dylib')
23
24		# note - this won't catch libassimp.so.N.n, but
25		# currently there's always a symlink called
26		# libassimp.so in /usr/local/lib.
27		ext_whitelist.append('.so')
28
29		elif os.name=='nt':
30		ext_whitelist.append('.dll')
31
32		def vec2tuple(x):
33		""" Converts a VECTOR3D to a Tuple """
34		return (x.x, x.y, x.z)
35
36
37		def try_load_functions(library,dll,candidates):
38		"""try to functbind to aiImportFile and aiReleaseImport
39
40		library - path to current lib
41		dll - ctypes handle to it
42		candidates - receives matching candidates
43
44		They serve as signal functions to detect assimp,
45		also they're currently the only functions we need.
46		insert (library,aiImportFile,aiReleaseImport,dll)
47		into 'candidates' if successful.
48
49		"""
50		try:
51		load = dll.aiImportFile
52		release = dll.aiReleaseImport
53		except AttributeError:
54		#OK, this is a library, but it has not the functions we need
55		pass
56		else:
57		#Library found!
58		load.restype = POINTER(structs.Scene)
59		candidates.append((library, load, release, dll))
60
61
62		def search_library():
63		"""Loads the assimp-Library.
64
65		result (load-function, release-function)
66		exception AssimpError if no library is found
67
68		"""
69		#this path
70		folder = os.path.dirname(__file__)
71
72		# silence 'DLL not found' message boxes on win
73		try:
74		ctypes.windll.kernel32.SetErrorMode(0x8007)
75		except AttributeError:
76		pass
77
78		candidates = []
79
80		# test every file
81		for curfolder in [folder]+additional_dirs:
82		for filename in os.listdir(curfolder):
83		# our minimum requirement for candidates is that
84		# they should contain 'assimp' somewhere in
85		# their name
86		if filename.lower().find('assimp')==-1 or\
87		os.path.splitext(filename)[-1].lower() not in ext_whitelist:
88		continue
89
90		library = os.path.join(curfolder, filename)
91		print('PyAssimp3: trying ',library)
92		try:
93		dll = ctypes.cdll.LoadLibrary(library)
94		except:
95		# OK, this except is evil. But different OSs will throw different
96		# errors. So just ignore any errors.
97		continue
98
99		try_load_functions(library,dll,candidates)
100
101		if not candidates:
102		# no library found
103		raise AssimpError("assimp library not found")
104		else:
105		# get the newest library
106		candidates = [(os.lstat(x[0])[-2], x) for x in candidates]
107		res = max(candidates, key=operator.itemgetter(0))[1]
108		print('PyAssimp3: taking ',res[0])
109
110		# XXX: if there are 1000 dll/so files containing 'assimp'
111		# in their name, do we have all of them in our address
112		# space now until gc kicks in?
113
114		# XXX: take version postfix of the .so on linux?
115		return res[1:]
116
117
118

-314

~~port/PyAssimp3/pyassimp/pyassimp.py~~ less more

0		#-- coding: UTF-8 --
1
2		"""
3		PyAssimp
4
5		This is the main-module of PyAssimp.
6		"""
7
8		import sys
9		if sys.version_info < (3,0):
10		raise Exception('pyassimp: need python 3.0 or newer')
11
12		from . import structs
13		import ctypes
14		import os
15		from . import helper
16		from .errors import AssimpError
17
18		class aiArray:
19		"""
20		A python class to 'safely' access C arrays.
21		For m<Name> and mNum<Name> assimp class members.
22		"""
23		def __init__(self, instance, dataName, sizeName, i=None):
24		self.instance = instance
25		self.dataName = dataName
26		self.sizeName = sizeName
27		self.i = i
28		self.count = 0
29
30		def _GetSize(self):
31		return getattr(self.instance, self.sizeName)
32
33		def _GetData(self, index):
34		if self.i != None:
35		if not bool(getattr(self.instance, self.dataName)[self.i]):
36		return None
37		item = getattr(self.instance, self.dataName)[self.i][index]
38		else:
39		item = getattr(self.instance, self.dataName)[index]
40		if hasattr(item, 'contents'):
41		return item.contents._init()
42		elif hasattr(item, '_init'):
43		return item._init()
44		else:
45		return item
46
47		def __next__(self):
48		if self.count >= self._GetSize():
49		self.count = 0
50		raise StopIteration
51		else:
52		c = self.count
53		self.count += 1
54		return self._GetData(c)
55
56		def __getitem__(self, index):
57		if isinstance(index, slice):
58		indices = index.indices(len(self))
59		return [self.__getitem__(i) for i in range(*indices)]
60
61		if index < 0 or index >= self._GetSize():
62		raise IndexError("aiArray index out of range")
63		return self._GetData(index)
64
65		def __iter__(self):
66		return self
67
68		def __len__(self):
69		return int(self._GetSize())
70
71		def __str__(self):
72		return str([x for x in self])
73
74		def __repr__(self):
75		return str([x for x in self])
76
77		class aiTuple:
78		"""
79		A python class to 'safely' access C structs in a python tuple fashion.
80		For C structs like vectors, matrices, colors, ...
81		"""
82		def __init__(self, instance):
83		self.instance = instance
84		self.count = 0
85
86		def _GetSize(self):
87		return len(self.instance._fields_)
88
89		def _GetData(self, index):
90		return getattr(self.instance, self.instance._fields_[index][0])
91
92		def __next__(self):
93		if self.count >= self._GetSize():
94		self.count = 0
95		raise StopIteration
96		else:
97		c = self.count
98		self.count += 1
99		return self._GetData(c)
100
101		def __getitem__(self, index):
102		if isinstance(index, slice):
103		indices = index.indices(len(self))
104		return [self.__getitem__(i) for i in range(*indices)]
105
106		if index < 0 or index >= self._GetSize():
107		raise IndexError("aiTuple index out of range")
108		return self._GetData(index)
109
110		def __iter__(self):
111		return self
112
113		def __len__(self):
114		return int(self._GetSize())
115
116		def __str__(self):
117		return str([x for x in self])
118
119		def __repr__(self):
120		return str([x for x in self])
121
122		class StringUInt32(ctypes.Structure):
123		"""
124		A ctypes structure used for material strings.
125		This is a workaround for a type mismatch for the length field between strings used for materials and elsewhere.
126		"""
127
128		MAXLEN = 1024
129
130		_fields_ = [
131		("length", ctypes.c_uint32),
132		("data", ctypes.c_char*MAXLEN),
133		]
134
135		def _init(self):
136		"""
137		Custom initialize() for C structs, adds safely accessable member functionality.
138		"""
139		if hasattr(self, '_is_init'):
140		return self
141		self._is_init = True
142
143		if str(self.__class__.__name__) == "MaterialProperty":
144		self.mKey._init()
145
146		for m in list(self.__class__.__dict__.keys()):
147		if m.startswith('mNum'):
148		name = m.split('mNum')[1]
149		if 'm'+name in list(self.__class__.__dict__.keys()):
150		setattr(self.__class__, name.lower(), aiArray(self, 'm'+name , m))
151		if name.lower() == "vertices":
152		setattr(self.__class__, "normals", aiArray(self, 'mNormals' , m))
153		setattr(self.__class__, "tangents", aiArray(self, 'mTangents' , m))
154		setattr(self.__class__, "bitangets", aiArray(self, 'mBitangents' , m))
155		setattr(self.__class__, "colors", [aiArray(self, 'mColors' , m, o) for o in range(len(self.mColors))])
156		setattr(self.__class__, "texcoords", [aiArray(self, 'mTextureCoords' , m, o) for o in range(len(self.mColors))])
157
158		elif m == "x" or m == "a1" or m == "b": # Vector, matrix, quat, color
159		self._tuple = aiTuple(self)
160		setattr(self.__class__, '__getitem__', lambda x, y: x._tuple.__getitem__(y))
161		setattr(self.__class__, '__iter__', lambda x: x._tuple)
162		setattr(self.__class__, 'next', lambda x: x._tuple.__next__)
163		setattr(self.__class__, '__repr__', lambda x: str([c for c in x]))
164		break
165		elif m == "data": #String
166		setattr(self.__class__, '__repr__', lambda x: str(x.data))
167		setattr(self.__class__, '__str__', lambda x: str(x.data))
168		break
169
170		if hasattr(getattr(self, m), '_init'):
171		getattr(self, m)._init()
172
173		return self
174
175		"""
176		Python magic to add the _init() function to all C struct classes.
177		"""
178		for struct in dir(structs):
179		if not (struct.startswith('_') or struct.startswith('c_') or struct == "Structure" or struct == "POINTER") and not isinstance(getattr(structs, struct),int):
180		setattr(getattr(structs, struct), '_init', _init)
181
182
183		class AssimpLib(object):
184		"""
185		Assimp-Singleton
186		"""
187		load, release, dll = helper.search_library()
188
189		#the loader as singleton
190		_assimp_lib = AssimpLib()
191
192
193		def load(filename, processing=0):
194		"""
195		Loads the model with some specific processing parameters.
196
197		filename - file to load model from
198		processing - processing parameters
199
200		result Scene-object with model-data
201
202		throws AssimpError - could not open file
203		"""
204		#read pure data
205		from ctypes import c_char_p, c_uint
206		model = _assimp_lib.load(c_char_p(filename), c_uint(processing))
207		if not model:
208		#Uhhh, something went wrong!
209		raise AssimpError("could not import file: %s" % filename)
210
211		return model.contents._init()
212
213		def release(scene):
214		from ctypes import pointer
215		_assimp_lib.release(pointer(scene))
216
217		def aiGetMaterialFloatArray(material, key):
218		AI_SUCCESS = 0
219		from ctypes import byref, pointer, cast, c_float, POINTER, sizeof, c_uint
220		out = structs.Color4D()
221		max = c_uint(sizeof(structs.Color4D))
222		r=_assimp_lib.dll.aiGetMaterialFloatArray(pointer(material),
223		key[0],
224		key[1],
225		key[2],
226		byref(out),
227		byref(max))
228
229		if (r != AI_SUCCESS):
230		raise AssimpError("aiGetMaterialFloatArray failed!")
231
232		out._init()
233		return [out[i] for i in range(max.value)]
234
235		def aiGetMaterialString(material, key):
236		AI_SUCCESS = 0
237		from ctypes import byref, pointer, cast, c_float, POINTER, sizeof, c_uint
238		out = structs.String()
239		r=_assimp_lib.dll.aiGetMaterialString(pointer(material),
240		key[0],
241		key[1],
242		key[2],
243		byref(out))
244
245		if (r != AI_SUCCESS):
246		raise AssimpError("aiGetMaterialString failed!")
247
248		return str(out.data)
249
250		def GetMaterialProperties(material):
251		"""
252		Convenience Function to get the material properties.
253		This function returns the following tuple: (name, clr, mat, tex) where:
254		name: is the name of the material
255		clr: is a dictionary of color parameters
256		mat: is a dictionary of material parameters
257		tex: is a triply nested dictionary than can be indexed by index, semantic, and then key:
258		tex[index][semantic][key]
259		"""
260		name = ""
261		clr = {}
262		mat = {}
263		tex = {}
264		#read all properties
265		for p in material.properties:
266		#the name
267		key = p.mKey.data
268
269		#the data
270		from ctypes import POINTER, cast, c_int, c_float, sizeof
271		if p.mType == 1:
272		arr = cast(p.mData, POINTER(c_float*(p.mDataLength//sizeof(c_float)) )).contents
273		value = [x for x in arr]
274		elif p.mType == 3: #string can't be an array
275		try:
276		value = cast(p.mData, POINTER(StringUInt32)).contents.data
277		except UnicodeDecodeError:
278		print('UnicodeDecodeError reading material property, ignoring.')
279		continue
280		elif p.mType == 4:
281		arr = cast(p.mData, POINTER(c_int*(p.mDataLength//sizeof(c_int)) )).contents
282		value = [x for x in arr]
283		else:
284		value = p.mData[:p.mDataLength]
285
286		#store in the appropriate dict
287		if key == b'?mat.name':
288		name = value
289		elif key[:5] == b'$mat.':
290		mat[key[5:]] = value
291		elif key[:5] == b'$clr.':
292		clr[key[5:]] = value
293		elif key[:5] == b'$tex.':
294		if p.mIndex not in tex:
295		tex[p.mIndex] = {}
296		if p.mSemantic not in tex[p.mIndex]:
297		tex[p.mIndex][p.mSemantic] = {}
298		tex[p.mIndex][p.mSemantic][key[5:]] = value
299
300		return (name, clr, mat, tex)
301
302
303		def aiDecomposeMatrix(matrix):
304		if not isinstance(matrix, structs.Matrix4x4):
305		raise AssimpError("aiDecomposeMatrix failed: Not a aiMatrix4x4!")
306
307		scaling = structs.Vector3D()
308		rotation = structs.Quaternion()
309		position = structs.Vector3D()
310
311		from ctypes import byref, pointer
312		_assimp_lib.dll.aiDecomposeMatrix(pointer(matrix), byref(scaling), byref(rotation), byref(position))
313		return scaling._init(), rotation._init(), position._init()

-424

~~port/PyAssimp3/pyassimp/structs.py~~ less more

0		#-- coding: UTF-8 --
1
2		from ctypes import POINTER, c_int, c_uint, c_char, c_float, Structure, c_char_p, c_double, c_ubyte, c_size_t
3
4
5		class Vector2D(Structure):
6		"""
7		See 'aiVector2D.h' for details.
8		"""
9
10
11		_fields_ = [
12		("x", c_float),("y", c_float),
13		]
14
15		class Texel(Structure):
16		"""
17		See 'aiTexture.h' for details.
18		"""
19
20		_fields_ = [
21		("b", c_ubyte),("g", c_ubyte),("r", c_ubyte),("a", c_ubyte),
22		]
23
24		class Plane(Structure):
25		"""
26		See 'aiTypes.h' for details.
27		"""
28
29		_fields_ = [
30		# Plane equation
31		("a", c_float),("b", c_float),("c", c_float),("d", c_float),
32		]
33
34		class Color3D(Structure):
35		"""
36		See 'aiTypes.h' for details.
37		"""
38
39		_fields_ = [
40		# Red, green and blue color values
41		("r", c_float),("g", c_float),("b", c_float),
42		]
43
44		class String(Structure):
45		"""
46		See 'aiTypes.h' for details.
47		"""
48
49		MAXLEN = 1024
50
51		_fields_ = [
52		#Binary length of the string excluding the terminal 0. This is NOT the# logical length of strings containing UTF-8 multibyte sequences! It's# the number of bytes from the beginning of the string to its end.#
53		("length", c_size_t),#String buffer. Size limit is MAXLEN#
54		("data", c_char*MAXLEN),
55		]
56
57		class MemoryInfo(Structure):
58		"""
59		See 'aiTypes.h' for details.
60		"""
61
62		_fields_ = [
63		#Storage allocated for texture data#
64		("textures", c_uint),#Storage allocated for material data#
65		("materials", c_uint),#Storage allocated for mesh data#
66		("meshes", c_uint),#Storage allocated for node data#
67		("nodes", c_uint),#Storage allocated for animation data#
68		("animations", c_uint),#Storage allocated for camera data#
69		("cameras", c_uint),#Storage allocated for light data#
70		("lights", c_uint),#Total storage allocated for the full import.#
71		("total", c_uint),
72		]
73
74		class Matrix3x3(Structure):
75		"""
76		See 'aiMatrix3x3.h' for details.
77		"""
78
79
80		_fields_ = [
81		("a1", c_float),("a2", c_float),("a3", c_float),
82		("b1", c_float),("b2", c_float),("b3", c_float),
83		("c1", c_float),("c2", c_float),("c3", c_float),
84		]
85
86		class Color4D(Structure):
87		"""
88		See 'aiColor4D.h' for details.
89		"""
90
91
92		_fields_ = [
93		# Red, green, blue and alpha color values
94		("r", c_float),("g", c_float),("b", c_float),("a", c_float),
95		]
96
97		class ExportFormatDesc(Structure):
98		"""
99		See 'export.h' for details.
100		"""
101
102		_fields_ = [
103		# a short string ID to uniquely identify the export format. Use this ID string to# specify which file format you want to export to when calling aiExportScene().# Example: "dae" or "obj"
104		("id", POINTER(c_char)),# A short description of the file format to present to users. Useful if you want# to allow the user to select an export format.
105		("description", POINTER(c_char)),# Recommended file extension for the exported file in lower case.
106		("fileExtension", POINTER(c_char)),
107		]
108
109		class Quaternion(Structure):
110		"""
111		See 'aiQuaternion.h' for details.
112		"""
113
114
115		_fields_ = [
116		# w,x,y,z components of the quaternion
117		("w", c_float),("x", c_float),("y", c_float),("z", c_float),
118		]
119
120		class Vector3D(Structure):
121		"""
122		See 'aiVector3D.h' for details.
123		"""
124
125
126		_fields_ = [
127		("x", c_float),("y", c_float),("z", c_float),
128		]
129
130		class Face(Structure):
131		"""
132		See 'aiMesh.h' for details.
133		"""
134
135		_fields_ = [
136		# Number of indices defining this face.# The maximum value for this member is #AI_MAX_FACE_INDICES.
137		("mNumIndices", c_uint),# Pointer to the indices array. Size of the array is given in numIndices.
138		("mIndices", POINTER(c_uint)),
139		]
140
141		class VertexWeight(Structure):
142		"""
143		See 'aiMesh.h' for details.
144		"""
145
146		_fields_ = [
147		# Index of the vertex which is influenced by the bone.
148		("mVertexId", c_uint),# The strength of the influence in the range (0...1).# The influence from all bones at one vertex amounts to 1.
149		("mWeight", c_float),
150		]
151
152		class MeshKey(Structure):
153		"""
154		See 'aiAnim.h' for details.
155		"""
156
157		_fields_ = [
158		#The time of this key#
159		("mTime", c_double),#Index into the aiMesh::mAnimMeshes array of the# mesh coresponding to the #aiMeshAnim hosting this# key frame. The referenced anim mesh is evaluated# according to the rules defined in the docs for #aiAnimMesh.#
160		("mValue", c_uint),
161		]
162
163		class Matrix4x4(Structure):
164		"""
165		See 'aiMatrix4x4.h' for details.
166		"""
167
168
169		_fields_ = [
170		("a1", c_float),("a2", c_float),("a3", c_float),("a4", c_float),
171		("b1", c_float),("b2", c_float),("b3", c_float),("b4", c_float),
172		("c1", c_float),("c2", c_float),("c3", c_float),("c4", c_float),
173		("d1", c_float),("d2", c_float),("d3", c_float),("d4", c_float),
174		]
175
176		class Node(Structure):
177		"""
178		See 'aiScene.h' for details.
179		"""
180
181
182		Node._fields_ = [
183		#The name of the node.##The name might be empty (length of zero) but all nodes which#need to be accessed afterwards by bones or anims are usually named.#Multiple nodes may have the same name, but nodes which are accessed#by bones (see #aiBone and #aiMesh::mBones) must be unique.##Cameras and lights are assigned to a specific node name - if there#are multiple nodes with this name, they're assigned to each of them.#<br>#There are no limitations regarding the characters contained in#this text. You should be able to handle stuff like whitespace, tabs,#linefeeds, quotation marks, ampersands, ... .#
184		("mName", String),#The transformation relative to the node's parent.#
185		("mTransformation", Matrix4x4),#Parent node. NULL if this node is the root node.#
186		("mParent", POINTER(Node)),#The number of child nodes of this node.#
187		("mNumChildren", c_uint),#The child nodes of this node. NULL if mNumChildren is 0.#
188		("mChildren", POINTER(POINTER(Node))),#The number of meshes of this node.#
189		("mNumMeshes", c_uint),#The meshes of this node. Each entry is an index into the mesh#
190		("mMeshes", POINTER(c_uint)),
191		]
192
193		class Camera(Structure):
194		"""
195		See 'aiCamera.h' for details.
196		"""
197
198
199		_fields_ = [
200		#The name of the camera.## There must be a node in the scenegraph with the same name.# This node specifies the position of the camera in the scene# hierarchy and can be animated.#
201		("mName", String),#Position of the camera relative to the coordinate space# defined by the corresponding node.## The default value is 0\|0\|0.#
202		("mPosition", Vector3D),#'Up' - vector of the camera coordinate system relative to# the coordinate space defined by the corresponding node.## The 'right' vector of the camera coordinate system is# the cross product of the up and lookAt vectors.# The default value is 0\|1\|0. The vector# may be normalized, but it needn't.#
203		("mUp", Vector3D),#'LookAt' - vector of the camera coordinate system relative to# the coordinate space defined by the corresponding node.## This is the viewing direction of the user.# The default value is 0\|0\|1. The vector# may be normalized, but it needn't.#
204		("mLookAt", Vector3D),#Half horizontal field of view angle, in radians.## The field of view angle is the angle between the center# line of the screen and the left or right border.# The default value is 1/4PI.#
205		("mHorizontalFOV", c_float),#Distance of the near clipping plane from the camera.##The value may not be 0.f (for arithmetic reasons to prevent#a division through zero). The default value is 0.1f.#
206		("mClipPlaneNear", c_float),#Distance of the far clipping plane from the camera.##The far clipping plane must, of course, be further away than the#near clipping plane. The default value is 1000.f. The ratio#between the near and the far plane should not be too#large (between 1000-10000 should be ok) to avoid floating-point#inaccuracies which could lead to z-fighting.#
207		("mClipPlaneFar", c_float),#Screen aspect ratio.##This is the ration between the width and the height of the#screen. Typical values are 4/3, 1/2 or 1/1. This value is#0 if the aspect ratio is not defined in the source file.#0 is also the default value.#
208		("mAspect", c_float),
209		]
210
211		class Texture(Structure):
212		"""
213		See 'aiTexture.h' for details.
214		"""
215
216
217		_fields_ = [
218		#Width of the texture, in pixels##If mHeight is zero the texture is compressed in a format#like JPEG. In this case mWidth specifies the size of the#memory area pcData is pointing to, in bytes.#
219		("mWidth", c_uint),#Height of the texture, in pixels##If this value is zero, pcData points to an compressed texture#in any format (e.g. JPEG).#
220		("mHeight", c_uint),#A hint from the loader to make it easier for applications# to determine the type of embedded compressed textures.##If mHeight != 0 this member is undefined. Otherwise it#is set set to '\\0\\0\\0\\0' if the loader has no additional#information about the texture file format used OR the#file extension of the format without a trailing dot. If there#are multiple file extensions for a format, the shortest#extension is chosen (JPEG maps to 'jpg', not to 'jpeg').#E.g. 'dds\\0', 'pcx\\0', 'jpg\\0'. All characters are lower-case.#The fourth character will always be '\\0'.#
221		("achFormatHint", c_char*4),#Data of the texture.##Points to an array of mWidth#mHeight aiTexel's.#The format of the texture data is always ARGB8888 to#make the implementation for user of the library as easy#as possible. If mHeight = 0 this is a pointer to a memory#buffer of size mWidth containing the compressed texture#data. Good luck, have fun!#
222		("pcData", POINTER(Texel)),
223		]
224
225		class Ray(Structure):
226		"""
227		See 'aiTypes.h' for details.
228		"""
229
230		_fields_ = [
231		# Position and direction of the ray
232		("pos", Vector3D),("dir", Vector3D),
233		]
234
235		class Light(Structure):
236		"""
237		See 'aiLight.h' for details.
238		"""
239
240
241		_fields_ = [
242		#The name of the light source.## There must be a node in the scenegraph with the same name.# This node specifies the position of the light in the scene# hierarchy and can be animated.#
243		("mName", String),#The type of the light source.##aiLightSource_UNDEFINED is not a valid value for this member.#
244		("mType", c_uint),#Position of the light source in space. Relative to the# transformation of the node corresponding to the light.## The position is undefined for directional lights.#
245		("mPosition", Vector3D),#Direction of the light source in space. Relative to the# transformation of the node corresponding to the light.## The direction is undefined for point lights. The vector# may be normalized, but it needn't.#
246		("mDirection", Vector3D),#Constant light attenuation factor.## The intensity of the light source at a given distance 'd' from# the light's position is# @code# Atten = 1/( att0 + att1#d + att2#d*d)# @endcode# This member corresponds to the att0 variable in the equation.# Naturally undefined for directional lights.#
247		("mAttenuationConstant", c_float),#Linear light attenuation factor.## The intensity of the light source at a given distance 'd' from# the light's position is# @code# Atten = 1/( att0 + att1#d + att2#d*d)# @endcode# This member corresponds to the att1 variable in the equation.# Naturally undefined for directional lights.#
248		("mAttenuationLinear", c_float),#Quadratic light attenuation factor.## The intensity of the light source at a given distance 'd' from# the light's position is# @code# Atten = 1/( att0 + att1#d + att2#d*d)# @endcode# This member corresponds to the att2 variable in the equation.# Naturally undefined for directional lights.#
249		("mAttenuationQuadratic", c_float),#Diffuse color of the light source## The diffuse light color is multiplied with the diffuse# material color to obtain the final color that contributes# to the diffuse shading term.#
250		("mColorDiffuse", Color3D),#Specular color of the light source## The specular light color is multiplied with the specular# material color to obtain the final color that contributes# to the specular shading term.#
251		("mColorSpecular", Color3D),#Ambient color of the light source## The ambient light color is multiplied with the ambient# material color to obtain the final color that contributes# to the ambient shading term. Most renderers will ignore# this value it, is just a remaining of the fixed-function pipeline# that is still supported by quite many file formats.#
252		("mColorAmbient", Color3D),#Inner angle of a spot light's light cone.## The spot light has maximum influence on objects inside this# angle. The angle is given in radians. It is 2PI for point# lights and undefined for directional lights.#
253		("mAngleInnerCone", c_float),#Outer angle of a spot light's light cone.## The spot light does not affect objects outside this angle.# The angle is given in radians. It is 2PI for point lights and# undefined for directional lights. The outer angle must be# greater than or equal to the inner angle.# It is assumed that the application uses a smooth# interpolation between the inner and the outer cone of the# spot light.#
254		("mAngleOuterCone", c_float),
255		]
256
257		class Bone(Structure):
258		"""
259		See 'aiMesh.h' for details.
260		"""
261
262		_fields_ = [
263		# The name of the bone.
264		("mName", String),# The number of vertices affected by this bone# The maximum value for this member is #AI_MAX_BONE_WEIGHTS.
265		("mNumWeights", c_uint),# The vertices affected by this bone
266		("mWeights", POINTER(VertexWeight)),# Matrix that transforms from mesh space to bone space in bind pose
267		("mOffsetMatrix", Matrix4x4),
268		]
269
270		class Mesh(Structure):
271		"""
272		See 'aiMesh.h' for details.
273		"""
274
275		AI_MAX_FACE_INDICES = 0x7fff
276		AI_MAX_BONE_WEIGHTS = 0x7fffffff
277		AI_MAX_VERTICES = 0x7fffffff
278		AI_MAX_FACES = 0x7fffffff
279		AI_MAX_NUMBER_OF_COLOR_SETS = 0x8
280		AI_MAX_NUMBER_OF_TEXTURECOORDS = 0x8
281
282		_fields_ = [
283		#Bitwise combination of the members of the #aiPrimitiveType enum.#This specifies which types of primitives are present in the mesh.#The "SortByPrimitiveType"-Step can be used to make sure the#output meshes consist of one primitive type each.#
284		("mPrimitiveTypes", c_uint),#The number of vertices in this mesh.#This is also the size of all of the per-vertex data arrays.#The maximum value for this member is #AI_MAX_VERTICES.#
285		("mNumVertices", c_uint),#The number of primitives (triangles, polygons, lines) in this mesh.#This is also the size of the mFaces array.#The maximum value for this member is #AI_MAX_FACES.#
286		("mNumFaces", c_uint),#Vertex positions.#This array is always present in a mesh. The array is#mNumVertices in size.#
287		("mVertices", POINTER(Vector3D)),#Vertex normals.#The array contains normalized vectors, NULL if not present.#The array is mNumVertices in size. Normals are undefined for#point and line primitives. A mesh consisting of points and#lines only may not have normal vectors. Meshes with mixed#primitive types (i.e. lines and triangles) may have normals,#but the normals for vertices that are only referenced by#point or line primitives are undefined and set to QNaN (WARN:#qNaN compares to inequal to everything, even to qNaN itself.#Using code like this to check whether a field is qnan is:#@code##define IS_QNAN(f) (f != f)#@endcode#still dangerous because even 1.f == 1.f could evaluate to false! (#remember the subtleties of IEEE754 artithmetics). Use stuff like#@c fpclassify instead.#@note Normal vectors computed by Assimp are always unit-length.#However, this needn't apply for normals that have been taken# directly from the model file.#
288		("mNormals", POINTER(Vector3D)),#Vertex tangents.#The tangent of a vertex points in the direction of the positive#X texture axis. The array contains normalized vectors, NULL if#not present. The array is mNumVertices in size. A mesh consisting#of points and lines only may not have normal vectors. Meshes with#mixed primitive types (i.e. lines and triangles) may have#normals, but the normals for vertices that are only referenced by#point or line primitives are undefined and set to qNaN. See#the #mNormals member for a detailled discussion of qNaNs.#@note If the mesh contains tangents, it automatically also#contains bitangents.#
289		("mTangents", POINTER(Vector3D)),#Vertex bitangents.#The bitangent of a vertex points in the direction of the positive#Y texture axis. The array contains normalized vectors, NULL if not#present. The array is mNumVertices in size.#@note If the mesh contains tangents, it automatically also contains#bitangents.#
290		("mBitangents", POINTER(Vector3D)),#Vertex color sets.#A mesh may contain 0 to #AI_MAX_NUMBER_OF_COLOR_SETS vertex#colors per vertex. NULL if not present. Each array is#mNumVertices in size if present.#
291		("mColors", POINTER(Color4D)*AI_MAX_NUMBER_OF_COLOR_SETS),#Vertex texture coords, also known as UV channels.#A mesh may contain 0 to AI_MAX_NUMBER_OF_TEXTURECOORDS per#vertex. NULL if not present. The array is mNumVertices in size.#
292		("mTextureCoords", POINTER(Vector3D)*AI_MAX_NUMBER_OF_TEXTURECOORDS),#Specifies the number of components for a given UV channel.#Up to three channels are supported (UVW, for accessing volume#or cube maps). If the value is 2 for a given channel n, the#component p.z of mTextureCoords[n][p] is set to 0.0f.#If the value is 1 for a given channel, p.y is set to 0.0f, too.#@note 4D coords are not supported#
293		("mNumUVComponents", c_uint*AI_MAX_NUMBER_OF_TEXTURECOORDS),#The faces the mesh is constructed from.#Each face refers to a number of vertices by their indices.#This array is always present in a mesh, its size is given#in mNumFaces. If the #AI_SCENE_FLAGS_NON_VERBOSE_FORMAT#is NOT set each face references an unique set of vertices.#
294		("mFaces", POINTER(Face)),#The number of bones this mesh contains.#Can be 0, in which case the mBones array is NULL.#
295		("mNumBones", c_uint),#The bones of this mesh.#A bone consists of a name by which it can be found in the#frame hierarchy and a set of vertex weights.#
296		("mBones", POINTER(POINTER(Bone))),#The material used by this mesh.#A mesh does use only a single material. If an imported model uses#multiple materials, the import splits up the mesh. Use this value#as index into the scene's material list.#
297		("mMaterialIndex", c_uint),#Name of the mesh. Meshes can be named, but this is not a# requirement and leaving this field empty is totally fine.# There are mainly three uses for mesh names:# - some formats name nodes and meshes independently.# - importers tend to split meshes up to meet the# one-material-per-mesh requirement. Assigning# the same (dummy) name to each of the result meshes# aids the caller at recovering the original mesh# partitioning.# - Vertex animations refer to meshes by their names.#
298		("mName", String),#NOT CURRENTLY IN USE. The number of attachment meshes#
299		("mNumAnimMeshes", c_uint),#NOT CURRENTLY IN USE. Attachment meshes for this mesh, for vertex-based animation.# Attachment meshes carry replacement data for some of the# mesh'es vertex components (usually positions, normals).#
300		]
301
302		class VectorKey(Structure):
303		"""
304		See 'aiAnim.h' for details.
305		"""
306
307		_fields_ = [
308		#The time of this key#
309		("mTime", c_double),#The value of this key#
310		("mValue", Vector3D),
311		]
312
313		class QuatKey(Structure):
314		"""
315		See 'aiAnim.h' for details.
316		"""
317
318		_fields_ = [
319		#The time of this key#
320		("mTime", c_double),#The value of this key#
321		("mValue", Quaternion),
322		]
323
324		class NodeAnim(Structure):
325		"""
326		See 'aiAnim.h' for details.
327		"""
328
329		_fields_ = [
330		#The name of the node affected by this animation. The node# must exist and it must be unique.#
331		("mNodeName", String),#The number of position keys#
332		("mNumPositionKeys", c_uint),#The position keys of this animation channel. Positions are#specified as 3D vector. The array is mNumPositionKeys in size.##If there are position keys, there will also be at least one#scaling and one rotation key.#
333		("mPositionKeys", POINTER(VectorKey)),#The number of rotation keys#
334		("mNumRotationKeys", c_uint),#The rotation keys of this animation channel. Rotations are# given as quaternions, which are 4D vectors. The array is# mNumRotationKeys in size.##If there are rotation keys, there will also be at least one#scaling and one position key.#
335		("mRotationKeys", POINTER(QuatKey)),#The number of scaling keys#
336		("mNumScalingKeys", c_uint),#The scaling keys of this animation channel. Scalings are# specified as 3D vector. The array is mNumScalingKeys in size.##If there are scaling keys, there will also be at least one#position and one rotation key.#
337		("mScalingKeys", POINTER(VectorKey)),#Defines how the animation behaves before the first# key is encountered.## The default value is aiAnimBehaviour_DEFAULT (the original# transformation matrix of the affected node is used).#
338		("mPreState", c_uint),#Defines how the animation behaves after the last# key was processed.## The default value is aiAnimBehaviour_DEFAULT (the original# transformation matrix of the affected node is taken).#
339		("mPostState", c_uint),
340		]
341
342		class Animation(Structure):
343		"""
344		See 'aiAnim.h' for details.
345		"""
346
347		_fields_ = [
348		#The name of the animation. If the modeling package this data was# exported from does support only a single animation channel, this# name is usually empty (length is zero).#
349		("mName", String),#Duration of the animation in ticks.#
350		("mDuration", c_double),#Ticks per second. 0 if not specified in the imported file#
351		("mTicksPerSecond", c_double),#The number of bone animation channels. Each channel affects# a single node.#
352		("mNumChannels", c_uint),#The node animation channels. Each channel affects a single node.# The array is mNumChannels in size.#
353		("mChannels", POINTER(POINTER(NodeAnim))),#The number of mesh animation channels. Each channel affects# a single mesh and defines vertex-based animation.#
354		("mNumMeshChannels", c_uint),#The mesh animation channels. Each channel affects a single mesh.# The array is mNumMeshChannels in size.#
355		]
356
357		class UVTransform(Structure):
358		"""
359		See 'aiMaterial.h' for details.
360		"""
361
362		_fields_ = [
363		#Translation on the u and v axes.## The default value is (0\|0).#
364		("mTranslation", Vector2D),#Scaling on the u and v axes.## The default value is (1\|1).#
365		("mScaling", Vector2D),#Rotation - in counter-clockwise direction.## The rotation angle is specified in radians. The# rotation center is 0.5f\|0.5f. The default value# 0.f.#
366		("mRotation", c_float),
367		]
368
369		class MaterialProperty(Structure):
370		"""
371		See 'aiMaterial.h' for details.
372		"""
373
374		_fields_ = [
375		#Specifies the name of the property (key)# Keys are generally case insensitive.#
376		("mKey", String),#Textures: Specifies their exact usage semantic.#For non-texture properties, this member is always 0#(or, better-said, #aiTextureType_NONE).#
377		("mSemantic", c_uint),#Textures: Specifies the index of the texture.# For non-texture properties, this member is always 0.#
378		("mIndex", c_uint),#Size of the buffer mData is pointing to, in bytes.# This value may not be 0.#
379		("mDataLength", c_uint),#Type information for the property.##Defines the data layout inside the data buffer. This is used#by the library internally to perform debug checks and to#utilize proper type conversions.#(It's probably a hacky solution, but it works.)#
380		("mType", c_uint),#Binary buffer to hold the property's value.#The size of the buffer is always mDataLength.#
381		("mData", POINTER(c_char)),
382		]
383
384		class Material(Structure):
385		"""
386		See 'aiMaterial.h' for details.
387		"""
388
389		_fields_ = [
390		#List of all material properties loaded.#
391		("mProperties", POINTER(POINTER(MaterialProperty))),#Number of properties in the data base#
392		("mNumProperties", c_uint),#Storage allocated#
393		("mNumAllocated", c_uint),
394		]
395
396		class Scene(Structure):
397		"""
398		See 'aiScene.h' for details.
399		"""
400
401		AI_SCENE_FLAGS_INCOMPLETE = 0x1
402		AI_SCENE_FLAGS_VALIDATED = 0x2
403		AI_SCENE_FLAGS_VALIDATION_WARNING = 0x4
404		AI_SCENE_FLAGS_NON_VERBOSE_FORMAT = 0x8
405		AI_SCENE_FLAGS_TERRAIN = 0x10
406
407		_fields_ = [
408		#Any combination of the AI_SCENE_FLAGS_XXX flags. By default#this value is 0, no flags are set. Most applications will#want to reject all scenes with the AI_SCENE_FLAGS_INCOMPLETE#bit set.#
409		("mFlags", c_uint),#The root node of the hierarchy.##There will always be at least the root node if the import#was successful (and no special flags have been set).#Presence of further nodes depends on the format and content#of the imported file.#
410		("mRootNode", POINTER(Node)),#The number of meshes in the scene.#
411		("mNumMeshes", c_uint),#The array of meshes.##Use the indices given in the aiNode structure to access#this array. The array is mNumMeshes in size. If the#AI_SCENE_FLAGS_INCOMPLETE flag is not set there will always#be at least ONE material.#
412		("mMeshes", POINTER(POINTER(Mesh))),#The number of materials in the scene.#
413		("mNumMaterials", c_uint),#The array of materials.##Use the index given in each aiMesh structure to access this#array. The array is mNumMaterials in size. If the#AI_SCENE_FLAGS_INCOMPLETE flag is not set there will always#be at least ONE material.#
414		("mMaterials", POINTER(POINTER(Material))),#The number of animations in the scene.#
415		("mNumAnimations", c_uint),#The array of animations.##All animations imported from the given file are listed here.#The array is mNumAnimations in size.#
416		("mAnimations", POINTER(POINTER(Animation))),#The number of textures embedded into the file#
417		("mNumTextures", c_uint),#The array of embedded textures.##Not many file formats embed their textures into the file.#An example is Quake's MDL format (which is also used by#some GameStudio versions)#
418		("mTextures", POINTER(POINTER(Texture))),#The number of light sources in the scene. Light sources#are fully optional, in most cases this attribute will be 0#
419		("mNumLights", c_uint),#The array of light sources.##All light sources imported from the given file are#listed here. The array is mNumLights in size.#
420		("mLights", POINTER(POINTER(Light))),#The number of cameras in the scene. Cameras#are fully optional, in most cases this attribute will be 0#
421		("mNumCameras", c_uint),#The array of cameras.##All cameras imported from the given file are listed here.#The array is mNumCameras in size. The first camera in the#array (if existing) is the default camera view into#the scene.#
422		("mCameras", POINTER(POINTER(Camera))),
423		]

-45

~~port/PyAssimp3/quicktest.py~~ less more

0		#!/usr/bin/env python3
1		#-- coding: UTF-8 --
2
3		"""
4		This module uses the sample.py script to load all test models it finds.
5
6		Note: this is not an exhaustive test suite, it does not check the
7		data structures in detail. It just verifies whether basic
8		loading and querying of 3d models using pyassimp works.
9		"""
10
11
12		import sys,os
13		import sample
14		from pyassimp import pyassimp,errors
15
16		# paths to be walkd recursively
17		basepaths = [os.path.join('..','..','test','models'), os.path.join('..','..','test','models-nonbsd')]
18
19		# file extensions to be considered
20		extensions = ['.3ds','.x','.lwo','.obj','.md5mesh','.dxf','.ply','.stl','.dae','.md5anim','.lws','.irrmesh','.nff','.off','.blend']
21
22		def run_tests():
23		ok,err = 0,0
24		for path in basepaths:
25		for root, dirs, files in os.walk(path):
26		for afile in files:
27		base,ext = os.path.splitext(afile)
28		if ext in extensions:
29		try:
30		sample.main(os.path.join(root,afile))
31		ok += 1
32		except errors.AssimpError as error:
33		# assimp error is fine, this is a controlled case
34		print(error)
35		err += 1
36		print(('** Loaded %s models, got controlled errors for %s files' % (ok,err)))
37
38
39		if __name__ == '__main__':
40		run_tests()
41
42
43
44

-71

~~port/PyAssimp3/sample.py~~ less more

0		#!/usr/bin/env python3
1		#-- coding: UTF-8 --
2
3		"""
4		This module demonstrates the functionality of PyAssimp.
5		"""
6
7
8		from pyassimp import pyassimp
9		import os, sys
10
11		#get a model out of assimp's test-data if none is provided on the command line
12		DEFAULT_MODEL = os.path.join(os.path.dirname(__file__),
13		"..", "..",
14		"test", "models", "Collada", "duck.dae")
15
16		def main(filename=None):
17		filename = filename or DEFAULT_MODEL
18		scene = pyassimp.load(filename)
19
20		#the model we load
21		print("MODEL:", filename)
22		print()
23
24		#write some statistics
25		print("SCENE:")
26		print(" meshes:", len(scene.meshes))
27		print(" materials:", len(scene.materials))
28		print(" textures:", len(scene.textures))
29		print()
30
31		print("MESHES:")
32		for index, mesh in enumerate(scene.meshes):
33		print(" MESH", index+1)
34		print(" material:", mesh.mMaterialIndex+1)
35		print(" vertices:", len(mesh.vertices))
36		print(" first 3 verts:", mesh.vertices[:3])
37		#if len(mesh.normals):
38		# print " first 3 normals:", mesh.normals[:3]
39		print(" colors:", len(mesh.colors))
40		tc = mesh.texcoords
41		print(" texture-coords 1:", len(tc[0]), "first3:", tc[0][:3])
42		print(" texture-coords 2:", len(tc[1]), "first3:", tc[1][:3])
43		print(" texture-coords 3:", len(tc[2]), "first3:", tc[2][:3])
44		print(" texture-coords 4:", len(tc[3]), "first3:", tc[3][:3])
45		print(" uv-component-count:", len(mesh.mNumUVComponents))
46		print(" faces:", len(mesh.faces), "first:", [f.indices for f in mesh.faces[:3]])
47		print(" bones:", len(mesh.bones), "first:", [b.mName for b in mesh.bones[:3]])
48		print()
49
50		print("MATERIALS:")
51		for index, material in enumerate(scene.materials):
52		print(" MATERIAL", index+1)
53		properties = pyassimp.GetMaterialProperties(material)
54		for key in properties:
55		print(" %s: %s" % (key, properties[key]))
56		print()
57
58		print("TEXTURES:")
59		for index, texture in enumerate(scene.textures):
60		print(" TEXTURE", index+1)
61		print(" width:", texture.mWidth)
62		print(" height:", texture.mHeight)
63		print(" hint:", texture.achFormatHint)
64		print(" data (size):", texture.mWidth*texture.mHeight)
65
66		# Finally release the model
67		pyassimp.release(scene)
68
69		if __name__ == "__main__":
70		main(sys.argv[1] if len(sys.argv)>1 else None)

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port/dAssimp/README less more

	0	D bindings for the Assimp library (http://assimp.sf.net).
	1	---
	2
	3	These bindings provide access to Assimp's C API. They were directly created
	4	from the C header files.
	5
	6	You should be able to create sufficient DDoc documentation for the bindings
	7	using your favourite build tool (such as Rebuild). Please refer to the main
	8	(Doxygen-generated) documentation for general topics.
	9
	10	Please note that the bindings have only been tested on 32 bit systems, they have
	11	yet to be adapted for the different size of the integer types in 64 bit builds
	12	of Assimp.

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port/dAssimp/assimp/animation.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* The data structures which are used to store the imported animation data.
	43	*/
	44	module assimp.animation;
	45
	46	import assimp.math;
	47	import assimp.types;
	48
	49	extern ( C ) {
	50	/**
	51	* A time-value pair specifying a certain 3D vector for the given time.
	52	*/
	53	struct aiVectorKey {
	54	/**
	55	* The time of this key.
	56	*/
	57	double mTime;
	58
	59	/**
	60	* The value of this key.
	61	*/
	62	aiVector3D mValue;
	63	}
	64
	65	/**
	66	* A time-value pair specifying a rotation for the given time. For joint
	67	* animations, the rotation is usually expressed using a quaternion.
	68	*/
	69	struct aiQuatKey {
	70	/**
	71	* The time of this key.
	72	*/
	73	double mTime;
	74
	75	/**
	76	* The value of this key.
	77	*/
	78	aiQuaternion mValue;
	79	}
	80
	81	/**
	82	* Defines how an animation channel behaves outside the defined time
	83	* range. This corresponds to <code>aiNodeAnim.mPreState</code> and
	84	* <code>aiNodeAnim.mPostState</code>.
	85	*/
	86	enum aiAnimBehaviour : uint {
	87	/**
	88	* The value from the default node transformation is used.
	89	*/
	90	DEFAULT = 0x0,
	91
	92	/**
	93	* The nearest key value is used without interpolation.
	94	*/
	95	CONSTANT = 0x1,
	96
	97	/**
	98	* The value of the nearest two keys is linearly extrapolated for the
	99	* current time value.
	100	*/
	101	LINEAR = 0x2,
	102
	103	/**
	104	* The animation is repeated.
	105	*
	106	* If the animation key go from n to m and the current time is t, use the
	107	* value at (t-n) % (\|m-n\|).
	108	*/
	109	REPEAT = 0x3
	110	}
	111
	112	/**
	113	* Describes the animation of a single node.
	114	*
	115	* The name specifies the bone/node which is affected by this animation
	116	* channel. The keyframes are given in three separate series of values, one
	117	* each for position, rotation and scaling. The transformation matrix
	118	* computed from these values replaces the node's original transformation
	119	* matrix at a specific time. This means all keys are absolute and not
	120	* relative to the bone default pose.
	121	*
	122	* The order in which the transformations are applied is –
	123	* as usual – scaling, rotation, translation.
	124	*
	125	* Note: All keys are returned in their correct, chronological order.
	126	* Duplicate keys don't pass the validation step. Most likely there will
	127	* be no negative time values, but they are not forbidden (so
	128	* implementations need to cope with them!).
	129	*/
	130	struct aiNodeAnim {
	131	/**
	132	* The name of the node affected by this animation. The node must exist
	133	* and it must be unique.
	134	*/
	135	aiString mNodeName;
	136
	137	/**
	138	* The number of position keys.
	139	*/
	140	uint mNumPositionKeys;
	141
	142	/**
	143	* The position keys of this animation channel. Positions are specified
	144	* as 3D vectors. The array is <code>mNumPositionKeys</code> in size.
	145	*
	146	* If there are position keys, there will also be at least one scaling
	147	* and one rotation key.
	148	*/
	149	aiVectorKey* mPositionKeys;
	150
	151	/**
	152	* The number of rotation keys.
	153	*/
	154	uint mNumRotationKeys;
	155
	156	/**
	157	* The rotation keys of this animation channel. Rotations are given as
	158	* quaternions. The array is <code>mNumRotationKeys</code> in size.
	159	*
	160	* If there are rotation keys, there will also be at least one scaling
	161	* and one position key.
	162	*/
	163	aiQuatKey* mRotationKeys;
	164
	165
	166	/**
	167	* The number of scaling keys.
	168	*/
	169	uint mNumScalingKeys;
	170
	171	/**
	172	* The scaling keys of this animation channel. Scalings are specified as
	173	* 3D vectors. The array is <code>mNumScalingKeys</code> in size.
	174	*
	175	* If there are scaling keys, there will also be at least one position
	176	* and one rotation key.
	177	*/
	178	aiVectorKey* mScalingKeys;
	179
	180
	181	/**
	182	* Defines how the animation behaves before the first key is encountered.
	183	*
	184	* The default value is <code>aiAnimBehaviour.DEFAULT</code> (the original
	185	* transformation matrix of the affected node is used).
	186	*/
	187	aiAnimBehaviour mPreState;
	188
	189	/**
	190	* Defines how the animation behaves after the last key was processed.
	191	*
	192	* The default value is <code>aiAnimBehaviour.DEFAULT</code> (the original
	193	* transformation matrix of the affected node is used).
	194	*/
	195	aiAnimBehaviour mPostState;
	196	}
	197
	198	/**
	199	* An animation consists of keyframe data for a number of nodes.
	200	*
	201	* For each node affected by the animation, a separate series of data is
	202	* given.
	203	*/
	204	struct aiAnimation {
	205	/**
	206	* The name of the animation.
	207	*
	208	* If the modeling package this data was
	209	* exported from does support only a single animation channel, this
	210	* name is usually empty (length is zero).
	211	*/
	212	aiString mName;
	213
	214	/**
	215	* Duration of the animation in ticks.
	216	*/
	217	double mDuration;
	218
	219	/**
	220	* Ticks per second. 0 if not specified in the imported file.
	221	*/
	222	double mTicksPerSecond;
	223
	224	/**
	225	* The number of bone animation channels.
	226	*
	227	* Each channel affects a single node.
	228	*/
	229	uint mNumChannels;
	230
	231	/**
	232	* The node animation channels. The array is <code>mNumChannels</code>
	233	* in size.
	234	*
	235	* Each channel affects a single node.
	236	*/
	237	aiNodeAnim** mChannels;
	238	}
	239	}⏎

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port/dAssimp/assimp/api.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* The C-style interface to the Open Asset import library.
	43	*
	44	* All functions of the C API have been collected in this module as function
	45	* pointers, which are set by the dynamic library loader
	46	* (<code>assimp.loader</code>).
	47	*/
	48	module assimp.api;
	49
	50	import assimp.fileIO;
	51	import assimp.material;
	52	import assimp.math;
	53	import assimp.scene;
	54	import assimp.types;
	55
	56	extern ( C ) {
	57	/**
	58	* Reads the given file and returns its content.
	59	*
	60	* If the call succeeds, the imported data is returned in an <code>aiScene</code>
	61	* structure. The data is intended to be read-only, it stays property of the
	62	* Assimp library and will be stable until <code>aiReleaseImport()</code> is
	63	* called. After you're done with it, call <code>aiReleaseImport()</code> to
	64	* free the resources associated with this file.
	65	*
	66	* If an error is encountered, null is returned instead. Call
	67	* <code>aiGetErrorString()</code> to retrieve a human-readable error
	68	* description.
	69	*
	70	* Params:
	71	* pFile = Path and filename of the file to be imported,
	72	* expected to be a null-terminated C-string. null is not a valid value.
	73	* pFlags = Optional post processing steps to be executed after a
	74	* successful import. Provide a bitwise combination of the
	75	* <code>aiPostProcessSteps</code> flags. If you wish to inspect the
	76	* imported scene first in order to fine-tune your post-processing
	77	* setup, consider to use <code>aiApplyPostProcessing()</code>.
	78	*
	79	* Returns:
	80	* A pointer to the imported data, null if the import failed.
	81	*/
	82	aiScene* function( char* pFile, uint pFile ) aiImportFile;
	83
	84	/**
	85	* Reads the given file using user-defined I/O functions and returns its
	86	* content.
	87	*
	88	* If the call succeeds, the imported data is returned in an <code>aiScene</code>
	89	* structure. The data is intended to be read-only, it stays property of the
	90	* Assimp library and will be stable until <code>aiReleaseImport()</code> is
	91	* called. After you're done with it, call <code>aiReleaseImport()</code> to
	92	* free the resources associated with this file.
	93	*
	94	* If an error is encountered, null is returned instead. Call
	95	* <code>aiGetErrorString()</code> to retrieve a human-readable error
	96	* description.
	97	*
	98	* Params:
	99	* pFile = Path and filename of the file to be imported,
	100	* expected to be a null-terminated C-string. null is not a valid value.
	101	* pFlags = Optional post processing steps to be executed after a
	102	* successful import. Provide a bitwise combination of the
	103	* <code>aiPostProcessSteps</code> flags. If you wish to inspect the
	104	* imported scene first in order to fine-tune your post-processing
	105	* setup, consider to use <code>aiApplyPostProcessing()</code>.
	106	* pFS = An aiFileIO which will be used to open the model file itself
	107	* and any other files the loader needs to open.
	108	*
	109	* Returns:
	110	* A pointer to the imported data, null if the import failed.
	111	*/
	112	aiScene* function( char* pFile, uint pFlags, aiFileIO* pFS ) aiImportFileEx;
	113
	114	/**
	115	* Reads the scene from the given memory buffer.
	116	*
	117	* Reads the given file using user-defined I/O functions and returns its
	118	* content.
	119	*
	120	* If the call succeeds, the imported data is returned in an <code>aiScene</code>
	121	* structure. The data is intended to be read-only, it stays property of the
	122	* Assimp library and will be stable until <code>aiReleaseImport()</code> is
	123	* called. After you're done with it, call <code>aiReleaseImport()</code> to
	124	* free the resources associated with this file.
	125	*
	126	* If an error is encountered, null is returned instead. Call
	127	* <code>aiGetErrorString()</code> to retrieve a human-readable error
	128	* description.
	129	*
	130	* Params:
	131	* pBuffer = Pointer to the scene data.
	132	* pLength = Size of pBuffer in bytes.
	133	* pFlags = Optional post processing steps to be executed after a
	134	* successful import. Provide a bitwise combination of the
	135	* <code>aiPostProcessSteps</code> flags. If you wish to inspect the
	136	* imported scene first in order to fine-tune your post-processing
	137	* setup, consider to use <code>aiApplyPostProcessing()</code>.
	138	* pHint = An additional hint to the library. If this is a non empty
	139	* string, the library looks for a loader to support the file
	140	* extension specified and passes the file to the first matching
	141	* loader. If this loader is unable to complete the request, the
	142	* library continues and tries to determine the file format on its
	143	* own, a task that may or may not be successful.
	144	*
	145	* Returns:
	146	* A pointer to the imported data, null if the import failed.
	147	*
	148	* Note:
	149	* This is a straightforward way to decode models from memory buffers,
	150	* but it doesn't handle model formats spreading their data across
	151	* multiple files or even directories. Examples include OBJ or MD3, which
	152	* outsource parts of their material stuff into external scripts. If you
	153	* need the full functionality, provide a custom IOSystem to make Assimp
	154	* find these files.
	155	*/
	156	aiScene* function(
	157	char* pBuffer,
	158	uint pLength,
	159	uint pFlags,
	160	char* pHint
	161	) aiImportFileFromMemory;
	162
	163	/**
	164	* Apply post-processing to an already-imported scene.
	165	*
	166	* This is strictly equivalent to calling <code>aiImportFile()</code> or
	167	* <code>aiImportFileEx()</code> with the same flags. However, you can use
	168	* this separate function to inspect the imported scene first to fine-tune
	169	* your post-processing setup.
	170	*
	171	* Params:
	172	* pScene = Scene to work on.
	173	* pFlags = Provide a bitwise combination of the
	174	* <code>aiPostProcessSteps</code> flags.
	175	*
	176	* Returns:
	177	* A pointer to the post-processed data. Post processing is done in-place,
	178	* meaning this is still the same <code>aiScene</code> which you passed
	179	* for pScene. However, if post-processing failed, the scene could now be
	180	* null. That's quite a rare case, post processing steps are not really
	181	* designed to fail. To be exact, <code>aiProcess.ValidateDS</code> is
	182	* currently the only post processing step which can actually cause the
	183	* scene to be reset to null.
	184	*/
	185	aiScene* function( aiScene* pScene, uint pFlags ) aiApplyPostProcessing;
	186
	187	/**
	188	* Get one of the predefined log streams. This is the quick'n'easy solution
	189	* to access Assimp's log system. Attaching a log stream can slightly reduce
	190	* Assimp's overall import performance.
	191	*
	192	* Examples:
	193	* ---
	194	* aiLogStream stream = aiGetPredefinedLogStream(
	195	* aiDefaultLogStream.FILE, "assimp.log.txt" );
	196	* if ( stream.callback !is null ) {
	197	* aiAttachLogStream( &stream );
	198	* }
	199	* ---
	200	*
	201	* Params:
	202	* pStreams = The log stream destination.
	203	* file = Solely for the <code>aiDefaultLogStream.FILE</code> flag:
	204	* specifies the file to write to. Pass null for all other flags.
	205	*
	206	* Returns:
	207	* The log stream, null if something went wrong.
	208	*/
	209	aiLogStream function( aiDefaultLogStream pStreams, char* file ) aiGetPredefinedLogStream;
	210
	211	/**
	212	* Attach a custom log stream to the libraries' logging system.
	213	*
	214	* Attaching a log stream can slightly reduce Assimp's overall import
	215	* performance. Multiple log-streams can be attached.
	216	*
	217	* Params:
	218	* stream = Describes the new log stream.
	219	*
	220	* Note: To ensure proper destruction of the logging system, you need to
	221	* manually call <code>aiDetachLogStream()</code> on every single log
	222	* stream you attach. Alternatively, <code>aiDetachAllLogStreams()</code>
	223	* is provided.
	224	*/
	225	void function( aiLogStream* stream ) aiAttachLogStream;
	226
	227	/**
	228	* Enable verbose logging.
	229	*
	230	* Verbose logging includes debug-related stuff and detailed import
	231	* statistics. This can have severe impact on import performance and memory
	232	* consumption. However, it might be useful to find out why a file is not
	233	* read correctly.
	234	*
	235	* Param:
	236	* d = Whether verbose logging should be enabled.
	237	*/
	238	void function( aiBool d ) aiEnableVerboseLogging;
	239
	240	/**
	241	* Detach a custom log stream from the libraries' logging system.
	242	*
	243	* This is the counterpart of #aiAttachPredefinedLogStream. If you attached a stream,
	244	* don't forget to detach it again.
	245	*
	246	* Params:
	247	* stream = The log stream to be detached.
	248	*
	249	* Returns:
	250	* <code>aiReturn.SUCCESS</code> if the log stream has been detached
	251	* successfully.
	252	*
	253	* See: <code>aiDetachAllLogStreams</code>
	254	*/
	255	aiReturn function( aiLogStream* stream ) aiDetachLogStream;
	256
	257	/**
	258	* Detach all active log streams from the libraries' logging system.
	259	*
	260	* This ensures that the logging system is terminated properly and all
	261	* resources allocated by it are actually freed. If you attached a stream,
	262	* don't forget to detach it again.
	263	*
	264	* See: <code>aiAttachLogStream</code>, <code>aiDetachLogStream</code>
	265	*/
	266	void function() aiDetachAllLogStreams;
	267
	268	/**
	269	* Releases all resources associated with the given import process.
	270	*
	271	* Call this function after you're done with the imported data.
	272	*
	273	* Params:
	274	* pScene = The imported data to release. null is a valid value.
	275	*/
	276	void function( aiScene* pScene ) aiReleaseImport;
	277
	278	/**
	279	* Returns the error text of the last failed import process.
	280	*
	281	* Returns:
	282	* A textual description of the error that occurred at the last importing
	283	* process. null if there was no error. There can't be an error if you
	284	* got a non-null <code>aiScene</code> from
	285	* <code>aiImportFile()/aiImportFileEx()/aiApplyPostProcessing()</code>.
	286	*/
	287	char* function() aiGetErrorString;
	288
	289	/**
	290	* Returns whether a given file extension is supported by this Assimp build.
	291	*
	292	* Params:
	293	* szExtension = Extension for which to query support. Must include a
	294	* leading dot '.'. Example: ".3ds", ".md3"
	295	*
	296	* Returns:
	297	* <code>TRUE</code> if the file extension is supported.
	298	*/
	299	aiBool function( char* szExtension ) aiIsExtensionSupported;
	300
	301	/**
	302	* Gets a list of all file extensions supported by ASSIMP.
	303	*
	304	* Format of the list: ".3ds;.obj;*.dae".
	305	*
	306	* If a file extension is contained in the list this does, of course, not
	307	* mean that Assimp is able to load all files with this extension.
	308	*
	309	* Params:
	310	* szOut = String to receive the extension list. null is not a valid
	311	* parameter.
	312	*/
	313	void function( aiString* szOut ) aiGetExtensionList;
	314
	315	/**
	316	* Gets the storage required by an imported asset
	317	*
	318	* Params:
	319	* pIn = Asset to query storage size for.
	320	* info = Data structure to be filled.
	321	*/
	322	void function( aiScene* pIn, aiMemoryInfo* info ) aiGetMemoryRequirements;
	323
	324	/**
	325	* Sets an integer property.
	326	*
	327	* Properties are always shared by all imports. It is not possible to
	328	* specify them per import.
	329	*
	330	* Params:
	331	* szName = Name of the configuration property to be set. All supported
	332	* public properties are defined in the <code>config</code> module.
	333	* value = New value for the property.
	334	*/
	335	void function( char* szName, int value ) aiSetImportPropertyInteger;
	336
	337	/**
	338	* Sets a floating-point property.
	339	*
	340	* Properties are always shared by all imports. It is not possible to
	341	* specify them per import.
	342	*
	343	* Params:
	344	* szName = Name of the configuration property to be set. All supported
	345	* public properties are defined in the <code>config</code> module.
	346	* value = New value for the property.
	347	*/
	348	void function( char* szName, float value ) aiSetImportPropertyFloat;
	349
	350	/**
	351	* Sets a string property.
	352	*
	353	* Properties are always shared by all imports. It is not possible to
	354	* specify them per import.
	355	*
	356	* Params:
	357	* szName = Name of the configuration property to be set. All supported
	358	* public properties are defined in the <code>config</code> module.
	359	* st = New value for the property.
	360	*/
	361	void function( char* szName, aiString* st ) aiSetImportPropertyString;
	362
	363
	364	/*
	365	* Mathematical helper functions.
	366	*/
	367
	368	/**
	369	* Constructs a quaternion from a 3x3 rotation matrix.
	370	*
	371	* Params:
	372	* quat = Receives the output quaternion.
	373	* mat = Matrix to 'quaternionize'.
	374	*/
	375	void function( aiQuaternion* quat, aiMatrix3x3* mat ) aiCreateQuaternionFromMatrix;
	376
	377	/**
	378	* Decomposes a transformation matrix into its rotational, translational and
	379	* scaling components.
	380	*
	381	* Params:
	382	* mat = Matrix to decompose.
	383	* scaling = Receives the scaling component.
	384	* rotation = Receives the rotational component.
	385	* position = Receives the translational component.
	386	*/
	387	void function(
	388	aiMatrix4x4* mat,
	389	aiVector3D* scaling,
	390	aiQuaternion* rotation,
	391	aiVector3D* position
	392	) aiDecomposeMatrix;
	393
	394	/**
	395	* Transposes a 4x4 matrix (in-place).
	396	*
	397	* Params:
	398	* mat = The matrix to be transposed.
	399	*/
	400	void function( aiMatrix4x4* mat ) aiTransposeMatrix4;
	401
	402	/**
	403	* Transposes a 3x3 matrix (in-place).
	404	*
	405	* Params:
	406	* mat = The matrix to be transposed.
	407	*/
	408	void function( aiMatrix3x3* mat ) aiTransposeMatrix3;
	409
	410	/**
	411	* Transforms a vector by a 3x3 matrix (in-place).
	412	*
	413	* Params:
	414	* vec = Vector to be transformed.
	415	* mat = Matrix to transform the vector with.
	416	*/
	417	void function( aiVector3D* vec, aiMatrix3x3* mat ) aiTransformVecByMatrix3;
	418
	419	/**
	420	* Transforms a vector by a 4x4 matrix (in-place).
	421	*
	422	* Params:
	423	* vec = Vector to be transformed.
	424	* mat = Matrix to transform the vector with.
	425	*/
	426	void function( aiVector3D* vec, aiMatrix4x4* mat ) aiTransformVecByMatrix4;
	427
	428	/**
	429	* Multiplies two 4x4 matrices.
	430	*
	431	* Params:
	432	* dst = First factor, receives result.
	433	* src = Matrix to be multiplied with 'dst'.
	434	*/
	435	void function( aiMatrix4x4* dst, aiMatrix4x4* src ) aiMultiplyMatrix4;
	436
	437	/**
	438	* Multiplies two 3x3 matrices.
	439	*
	440	* Params:
	441	* dst = First factor, receives result.
	442	* src = Matrix to be multiplied with 'dst'.
	443	*/
	444	void function( aiMatrix3x3* dst, aiMatrix3x3* src ) aiMultiplyMatrix3;
	445
	446	/**
	447	* Constructs a 3x3 identity matrix.
	448	*
	449	* Params:
	450	* mat = Matrix to receive its personal identity.
	451	*/
	452	void function( aiMatrix3x3* mat ) aiIdentityMatrix3;
	453
	454	/**
	455	* Constructs a 4x4 identity matrix.
	456	*
	457	* Params:
	458	* mat = Matrix to receive its personal identity.
	459	*/
	460	void function( aiMatrix4x4* mat ) aiIdentityMatrix4;
	461
	462
	463	/*
	464	* Material system functions.
	465	*/
	466
	467	/**
	468	* Retrieves a material property with a specific key from the material.
	469	*
	470	* Params:
	471	* pMat = Pointer to the input material. May not be null.
	472	* pKey = Key to search for. One of the <code>AI_MATKEY_XXX</code>
	473	* constants.
	474	* type = Specifies the <code>aiTextureType</code> of the texture to be
	475	* retrieved, 0 for non-texture properties.
	476	* index = Index of the texture to be retrieved,
	477	* 0 for non-texture properties.
	478	* pPropOut = Pointer to receive a pointer to a valid
	479	* <code>aiMaterialProperty</code> structure or null if the key has
	480	* not been found.
	481	*/
	482	aiReturn function(
	483	aiMaterial* pMat,
	484	char* pKey,
	485	uint type,
	486	uint index,
	487	aiMaterialProperty** pPropOut
	488	) aiGetMaterialProperty;
	489
	490	/**
	491	* Retrieves a single float value or an array of float values from the
	492	* material.
	493	*
	494	* Examples:
	495	* ---
	496	* const FLOATS_IN_UV_TRANSFORM = ( aiUVTransform.sizeof / float.sizeof );
	497	* uint valuesRead = FLOATS_IN_UV_TRANSFORM;
	498	* bool success =
	499	* ( aiGetMaterialFloatArray( &material, AI_MATKEY_UVTRANSFORM,
	500	* aiTextureType.DIFFUSE, 0, cast( float* ) &trafo, &valuesRead ) ==
	501	* aiReturn.SUCCESS ) &&
	502	* ( valuesRead == FLOATS_IN_UV_TRANSFORM );
	503	* ---
	504	*
	505	* Params:
	506	* pMat = Pointer to the input material. May not be null.
	507	* pKey = Key to search for. One of the AI_MATKEY_XXX constants.
	508	* type = Specifies the <code>aiTextureType</code> of the texture to be
	509	* retrieved, 0 for non-texture properties.
	510	* index = Index of the texture to be retrieved,
	511	* 0 for non-texture properties.
	512	* pOut = Pointer to a buffer to receive the result.
	513	* pMax = Specifies the size of the given buffer in floats. Receives the
	514	* number of values (not bytes!) read. null to read a scalar property.
	515	*
	516	* Returns:
	517	* Specifies whether the key has been found. If not, the output arrays
	518	* remains unmodified and pMax is set to 0.
	519	*/
	520	aiReturn function(
	521	aiMaterial* pMat,
	522	char* pKey,
	523	uint type,
	524	uint index,
	525	float* pOut,
	526	uint* pMax = null
	527	) aiGetMaterialFloatArray;
	528
	529	/**
	530	* Convenience alias for <code>aiGetMaterialFloatArray()</code>.
	531	*/
	532	alias aiGetMaterialFloatArray aiGetMaterialFloat;
	533
	534	/**
	535	* Retrieves a single integer value or an array of integer values from the
	536	* material.
	537	*
	538	* See: <code>aiGetMaterialFloatArray()</code>
	539	*/
	540	aiReturn function(
	541	aiMaterial* pMat,
	542	char* pKey,
	543	uint type,
	544	uint index,
	545	int* pOut,
	546	uint* pMax = null
	547	) aiGetMaterialIntegerArray;
	548
	549	/**
	550	* Convenience alias for <code>aiGetMaterialIntegerArray()</code>.
	551	*/
	552	alias aiGetMaterialIntegerArray aiGetMaterialInteger;
	553
	554	/**
	555	* Retrieves a color value from the material.
	556	*
	557	* See: <code>aiGetMaterialFloatArray()</code>
	558	*/
	559	aiReturn function(
	560	aiMaterial* pMat,
	561	char* pKey,
	562	uint type,
	563	uint index,
	564	aiColor4D* pOut
	565	) aiGetMaterialColor;
	566
	567	/**
	568	* Retrieves a string value from the material.
	569	*
	570	* See: <code>aiGetMaterialFloatArray()</code>
	571	*/
	572	aiReturn function(
	573	aiMaterial* pMat,
	574	char* pKey,
	575	uint type,
	576	uint index,
	577	aiString* pOut
	578	) aiGetMaterialString;
	579
	580	/**
	581	* Get the number of textures for a particular texture type.
	582	*
	583	* Params:
	584	* pMat = Pointer to the input material. May not be NULL
	585	* type = Texture type to check for
	586	*
	587	* Returns:
	588	* Number of textures for this type.
	589	*/
	590	uint function( aiMaterial* pMat, aiTextureType type ) aiGetMaterialTextureCount;
	591
	592	/**
	593	* Helper function to get all values pertaining to a particular texture slot
	594	* from a material structure.
	595	*
	596	* This function is provided just for convenience. You could also read the
	597	* texture by parsing all of its properties manually. This function bundles
	598	* all of them in a huge function monster.
	599	*
	600	* Params:
	601	* mat = Pointer to the input material. May not be null.
	602	* type = Specifies the texture stack (<code>aiTextureType</code>) to
	603	* read from.
	604	* index = Index of the texture. The function fails if the requested
	605	* index is not available for this texture type.
	606	* <code>aiGetMaterialTextureCount()</code> can be used to determine
	607	* the number of textures in a particular texture stack.
	608	* path = Receives the output path. null is not a valid value.
	609	* mapping = Recieves the texture mapping mode to be used.
	610	* Pass null if you are not interested in this information.
	611	* uvindex = For UV-mapped textures: receives the index of the UV source
	612	* channel. Unmodified otherwise. Pass null if you are not interested
	613	* in this information.
	614	* blend = Receives the blend factor for the texture.
	615	* Pass null if you are not interested in this information.
	616	* op = Receives the texture blend operation to be perform between this
	617	* texture and the previous texture. Pass null if you are not
	618	* interested in this information.
	619	* mapmode = Receives the mapping modes to be used for the texture. Pass
	620	* a pointer to an array of two aiTextureMapMode's (one for each axis,
	621	* UV order) or null if you are not interested in this information.
	622	*
	623	* Returns:
	624	* <code>aiReturn.SUCCESS</code> on success, otherwise something else.
	625	*/
	626	aiReturn function(
	627	aiMaterial* mat,
	628	aiTextureType type,
	629	uint index,
	630	aiString* path,
	631	aiTextureMapping* mapping = null,
	632	uint* uvindex = null,
	633	float* blend = null,
	634	aiTextureOp* op = null,
	635	aiTextureMapMode* mapmode = null
	636	) aiGetMaterialTexture;
	637
	638
	639	/*
	640	* Versioning functions.
	641	*/
	642
	643	/**
	644	* Returns a string with legal copyright and licensing information about
	645	* Assimp.
	646	*
	647	* The string may include multiple lines.
	648	*
	649	* Returns:
	650	* Pointer to static string.
	651	*/
	652	char* function() aiGetLegalString;
	653
	654	/**
	655	* Returns the current minor version number of the Assimp library.
	656	*
	657	* Returns:
	658	* Minor version of the Assimp library.
	659	*/
	660	uint function() aiGetVersionMinor;
	661
	662	/**
	663	* Returns the current major version number of the Assimp library.
	664	*
	665	* Returns:
	666	* Major version of the Assimp library.
	667	*/
	668	uint function() aiGetVersionMajor;
	669
	670	/**
	671	* Returns the repository revision of the Assimp library.
	672	*
	673	* Returns:
	674	* SVN Repository revision number of the Assimp library.
	675	*/
	676	uint function() aiGetVersionRevision;
	677
	678	/**
	679	* Returns the flags Assimp was compiled with.
	680	*
	681	* Returns:
	682	* Any bitwise combination of the ASSIMP_CFLAGS_xxx constants.
	683	*/
	684	uint function() aiGetCompileFlags;
	685	}

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port/dAssimp/assimp/assimp.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Include-all module provided for convenience.
	43	*/
	44	module assimp.assimp;
	45
	46	public {
	47	import assimp.animation;
	48	import assimp.api;
	49	import assimp.camera;
	50	import assimp.config;
	51	import assimp.fileIO;
	52	import assimp.light;
	53	import assimp.loader;
	54	import assimp.material;
	55	import assimp.math;
	56	import assimp.mesh;
	57	import assimp.postprocess;
	58	import assimp.scene;
	59	import assimp.texture;
	60	import assimp.types;
	61	import assimp.versionInfo;
	62	}

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port/dAssimp/assimp/camera.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Contains the data structure which is used to store the imported information
	43	* about the virtual cameras in the scene.
	44	*/
	45	module assimp.camera;
	46
	47	import assimp.math;
	48	import assimp.types;
	49
	50	extern ( C ) {
	51	/**
	52	* Helper structure to describe a virtual camera.
	53	*
	54	* Cameras have a representation in the node graph and can be animated.
	55	* An important aspect is that the camera itself is also part of the
	56	* scenegraph. This means, any values such as the look-at vector are not
	57	* absolute, they're <em>relative</em> to the coordinate system defined
	58	* by the node which corresponds to the camera. This allows for camera
	59	* animations. Static cameras parameters like the look-at or up vectors are
	60	* usually specified directly in the class members, but beware, they could
	61	* also be encoded in the node transformation. The following (pseudo)code
	62	* sample shows how to do it.
	63	*
	64	* Examples:
	65	* ---
	66	* // Get the camera matrix for a camera at a specific time
	67	* // if the node hierarchy for the camera does not contain
	68	* // at least one animated node this is a static computation
	69	* get-camera-matrix (node sceneRoot, camera cam) : matrix
	70	* {
	71	* node cnd = find-node-for-camera(cam)
	72	* matrix cmt = identity()
	73	*
	74	* // as usual - get the absolute camera transformation for this frame
	75	* for each node nd in hierarchy from sceneRoot to cnd
	76	* matrix cur
	77	* if (is-animated(nd))
	78	* cur = eval-animation(nd)
	79	* else cur = nd->mTransformation;
	80	* cmt = mult-matrices( cmt, cur )
	81	* end for
	82	*
	83	* // now multiply with the camera's own local transform
	84	* cam = mult-matrices (cam, get-camera-matrix(cmt) )
	85	* }
	86	* ---
	87	*
	88	* Note: Some file formats (such as 3DS, ASE) export a "target point" – the
	89	* point the camera is looking at (it can even be animated). Assimp
	90	* writes the target point as a subnode of the camera's main node, called
	91	* "<camName>.Target". However, this is just additional information; the
	92	* transformation applied to the main camera node already makes the
	93	* camera face the right direction.
	94	*/
	95	struct aiCamera {
	96	/**
	97	* The name of the camera.
	98	*
	99	* There must be a node in the scenegraph with the same name. This node
	100	* specifies the position of the camera in the scene hierarchy and can
	101	* be animated.
	102	*/
	103	aiString mName;
	104
	105
	106	/**
	107	* Position of the camera relative to the coordinate space defined by the
	108	* corresponding node.
	109	*
	110	* The default value is 0\|0\|0.
	111	*/
	112	aiVector3D mPosition;
	113
	114	/**
	115	* Up vector of the camera coordinate system relative to the
	116	* coordinate space defined by the corresponding node.
	117	*
	118	* The right vector of the camera coordinate system is the cross
	119	* product of the up and lookAt vectors.
	120	*
	121	* The default value is 0\|1\|0. The vector may be normalized, but it
	122	* needn't.
	123	*/
	124	aiVector3D mUp;
	125
	126	/**
	127	* Look-at vector of the camera coordinate system relative to the
	128	* coordinate space defined by the corresponding node.
	129	*
	130	* This is the viewing direction of the user.
	131	*
	132	* The default value is 0\|0\|1. The vector may be normalized, but it
	133	* needn't.
	134	*/
	135	aiVector3D mLookAt;
	136
	137
	138	/**
	139	* Half horizontal field of view angle, in radians.
	140	*
	141	* The field of view angle is the angle between the center line of the
	142	* screen and the left or right border.
	143	*
	144	* The default value is PI/4.
	145	*/
	146	float mHorizontalFOV;
	147
	148	/**
	149	* Distance of the near clipping plane from the camera.
	150	*
	151	* The value may not be 0.f (for arithmetic reasons to prevent
	152	* a division through zero).
	153	*
	154	* The default value is 0.1f.
	155	*/
	156	float mClipPlaneNear;
	157
	158	/**
	159	* Distance of the far clipping plane from the camera.
	160	*
	161	* The far clipping plane must, of course, be further away than the
	162	* near clipping plane. The ratio between the near and the far plane
	163	* should not be too large (between 1000-10000 should be ok) to avoid
	164	* floating-point inaccuracies which could lead to z-fighting.
	165	*
	166	* The default value is 1000.f.
	167	*/
	168	float mClipPlaneFar;
	169
	170	/**
	171	* Screen aspect ratio.
	172	*
	173	* This is the ration between the width and the height of the
	174	* screen. Typical values are 4/3, 1/2 or 1/1. This value is
	175	* 0 if the aspect ratio is not defined in the source file.
	176	*
	177	* 0 is also the default value.
	178	*/
	179	float mAspect;
	180	}
	181	}

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port/dAssimp/assimp/config.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Defines constants for configurable properties for the library.
	43	*
	44	* These are set via <code>aiSetImportPropertyInteger()</code>,
	45	* <code>aiSetImportPropertyFloat()</code> and
	46	* <code>aiSetImportPropertyString()</code>.
	47	*/
	48	module assimp.config;
	49
	50	extern ( C ) {
	51	/*
	52	* Library settings.
	53	*
	54	* General, global settings.
	55	*/
	56
	57	/**
	58	* Enables time measurements.
	59	*
	60	* If enabled, measures the time needed for each part of the loading
	61	* process (i.e. IO time, importing, postprocessing, ..) and dumps these
	62	* timings to the DefaultLogger. See the performance page in the main
	63	* Assimp docs information on this topic.
	64	*
	65	* Property type: bool. Default value: false.
	66	*/
	67	const char* AI_CONFIG_GLOB_MEASURE_TIME = "GLOB_MEASURE_TIME";
	68
	69	version( none ) { // not implemented yet
	70	/**
	71	* Set Assimp's multithreading policy.
	72	*
	73	* This setting is ignored if Assimp was built without boost.thread support
	74	* (<code>ASSIMP_BUILD_NO_THREADING</code>, which is implied by
	75	* <code>ASSIMP_BUILD_BOOST_WORKAROUND</code>).
	76	*
	77	* Possible values are: -1 to let Assimp decide what to do, 0 to disable
	78	* multithreading entirely and any number larger than 0 to force a specific
	79	* number of threads. Assimp is always free to ignore this settings, which
	80	* is merely a hint. Usually, the default value (-1) will be fine. However,
	81	* if Assimp is used concurrently from multiple user threads, it might be
	82	* useful to limit each Importer instance to a specific number of cores.
	83	*
	84	* For more information, see the threading page in the main Assimp docs.
	85	*
	86	* Property type: int, default value: -1.
	87	*/
	88	const char* AI_CONFIG_GLOB_MULTITHREADING = "GLOB_MULTITHREADING";
	89	}
	90
	91
	92	/*
	93	* Post processing settings.
	94	*
	95	* Various options to fine-tune the behavior of a specific post processing step.
	96	*/
	97
	98	/**
	99	* Specifies the maximum angle that may be between two vertex tangents that
	100	* their tangents and bitangents are smoothed.
	101	*
	102	* This applies to the <code>CalcTangentSpace</code> step. The angle is
	103	* specified in degrees, so 180 corresponds to PI radians.
	104	*
	105	* The default value is 45, the maximum value is 175.
	106	*
	107	* Property type: float.
	108	*/
	109	const char* AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE = "PP_CT_MAX_SMOOTHING_ANGLE";
	110
	111	/**
	112	* Specifies the maximum angle that may be between two face normals at the
	113	* same vertex position that their are smoothed together. Sometimes referred
	114	* to as 'crease angle'.
	115	*
	116	* This applies to the <code>GenSmoothNormals</code> step. The angle is
	117	* specified in degrees, so 180 corresponds to PI radians.
	118	*
	119	* The default value is 175 degrees (all vertex normals are smoothed), the
	120	* maximum value is 175, too.
	121	*
	122	* Property type: float.
	123	*
	124	* Warning:
	125	* Setting this option may cause a severe loss of performance. The
	126	* performance is unaffected if the <code>AI_CONFIG_FAVOUR_SPEED</code>
	127	* flag is set but the output quality may be reduced.
	128	*/
	129	const char* AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE = "PP_GSN_MAX_SMOOTHING_ANGLE";
	130
	131	/**
	132	* Sets the colormap (= palette) to be used to decode embedded textures in
	133	* MDL (Quake or 3DGS) files.
	134	*
	135	* This must be a valid path to a file. The file is 768 (256*3) bytes large
	136	* and contains RGB triplets for each of the 256 palette entries. The
	137	* default value is colormap.lmp. If the file is not found, a default
	138	* palette (from Quake 1) is used.
	139	*
	140	* Property type: string.
	141	*/
	142	const char* AI_CONFIG_IMPORT_MDL_COLORMAP = "IMPORT_MDL_COLORMAP";
	143
	144	/**
	145	* Configures the <code>RemoveRedundantMaterials</code> step to keep
	146	* materials matching a name in a given list.
	147	*
	148	* This is a list of 1 to n strings, ' ' serves as delimiter character.
	149	* Identifiers containing whitespaces must be enclosed in <em>single</em>
	150	* quotation marks. For example: <code>
	151	* "keep-me and_me_to anotherMaterialToBeKept \'name with whitespace\'"</code>.
	152	* Linefeeds, tabs or carriage returns are treated as whitespace.
	153	*
	154	* If a material matches on of these names, it will not be modified or
	155	* removed by the postprocessing step nor will other materials be replaced
	156	* by a reference to it.
	157	*
	158	* This option might be useful if you are using some magic material names
	159	* to pass additional semantics through the content pipeline. This ensures
	160	* they won't be optimized away, but a general optimization is still
	161	* performed for materials not contained in the list.
	162	*
	163	* Default value: n/a
	164	*
	165	* Property type: string.
	166	*
	167	* Note: Material names are case sensitive.
	168	*/
	169	const char* AI_CONFIG_PP_RRM_EXCLUDE_LIST = "PP_RRM_EXCLUDE_LIST";
	170
	171	/**
	172	* Configures the <code>PretransformVertices</code> step to keep the scene
	173	* hierarchy. Meshes are moved to worldspace, but no optimization is
	174	* performed (meshes with equal materials are not joined, the total number
	175	* of meshes will not change).
	176	*
	177	* This option could be of use for you if the scene hierarchy contains
	178	* important additional information which you intend to parse.
	179	* For rendering, you can still render all meshes in the scene without
	180	* any transformations.
	181	*
	182	* Default value: false.
	183	*
	184	* Property type: bool.
	185	*/
	186	const char* AI_CONFIG_PP_PTV_KEEP_HIERARCHY = "PP_PTV_KEEP_HIERARCHY";
	187
	188	/**
	189	* Configures the <code>PretransformVertices</code> step to normalize all
	190	* vertex components into the -1...1 range. That is, a bounding box for the
	191	* whole scene is computed, the maximum component is taken and all meshes
	192	* are scaled appropriately (uniformly of course!).
	193	*
	194	* This might be useful if you don't know the spatial dimension of the input
	195	* data.
	196	*/
	197	const char* AI_CONFIG_PP_PTV_NORMALIZE = "PP_PTV_NORMALIZE";
	198
	199	/**
	200	* Configures the <code>FindDegenerates</code> step to remove degenerated
	201	* primitives from the import – immediately.
	202	*
	203	* The default behaviour converts degenerated triangles to lines and
	204	* degenerated lines to points. See the documentation to the
	205	* <code>FindDegenerates</code> step for a detailed example of the various
	206	* ways to get rid of these lines and points if you don't want them.
	207	*
	208	* Default value: false.
	209	*
	210	* Property type: bool.
	211	*/
	212	const char* AI_CONFIG_PP_FD_REMOVE = "PP_FD_REMOVE";
	213
	214	/**
	215	* Configures the <code>OptimizeGraph</code> step to preserve nodes matching
	216	* a name in a given list.
	217	*
	218	* This is a list of 1 to n strings, ' ' serves as delimiter character.
	219	* Identifiers containing whitespaces must be enclosed in <em>single</em>
	220	* quotation marks. For example: <code>
	221	* "keep-me and_me_to anotherMaterialToBeKept \'name with whitespace\'"</code>.
	222	* Linefeeds, tabs or carriage returns are treated as whitespace.
	223	*
	224	* If a node matches on of these names, it will not be modified or
	225	* removed by the postprocessing step.
	226	*
	227	* This option might be useful if you are using some magic node names
	228	* to pass additional semantics through the content pipeline. This ensures
	229	* they won't be optimized away, but a general optimization is still
	230	* performed for nodes not contained in the list.
	231	*
	232	* Default value: n/a
	233	*
	234	* Property type: string.
	235	*
	236	* Note: Node names are case sensitive.
	237	*/
	238	const char* AI_CONFIG_PP_OG_EXCLUDE_LIST = "PP_OG_EXCLUDE_LIST";
	239
	240	/**
	241	* Sets the maximum number of triangles in a mesh.
	242	*
	243	* This is used by the <code>SplitLargeMeshes</code> step to determine
	244	* whether a mesh must be split or not.
	245	*
	246	* Default value: AI_SLM_DEFAULT_MAX_TRIANGLES.
	247	*
	248	* Property type: integer.
	249	*/
	250	const char* AI_CONFIG_PP_SLM_TRIANGLE_LIMIT = "PP_SLM_TRIANGLE_LIMIT";
	251
	252	/**
	253	* The default value for the AI_CONFIG_PP_SLM_TRIANGLE_LIMIT setting.
	254	*/
	255	const AI_SLM_DEFAULT_MAX_TRIANGLES = 1000000;
	256
	257	/**
	258	* Sets the maximum number of vertices in a mesh.
	259	*
	260	* This is used by the <code>SplitLargeMeshes</code> step to determine
	261	* whether a mesh must be split or not.
	262	*
	263	* Default value: AI_SLM_DEFAULT_MAX_VERTICES
	264	*
	265	* Property type: integer.
	266	*/
	267	const char* AI_CONFIG_PP_SLM_VERTEX_LIMIT = "PP_SLM_VERTEX_LIMIT";
	268
	269	/**
	270	* The default value for the AI_CONFIG_PP_SLM_VERTEX_LIMIT setting.
	271	*/
	272	const AI_SLM_DEFAULT_MAX_VERTICES = 1000000;
	273
	274	/**
	275	* Sets the maximum number of bones affecting a single vertex.
	276	*
	277	* This is used by the <code>LimitBoneWeights</code> step.
	278	*
	279	* Default value: AI_LBW_MAX_WEIGHTS
	280	*
	281	* Property type: integer.
	282	*/
	283	const char* AI_CONFIG_PP_LBW_MAX_WEIGHTS = "PP_LBW_MAX_WEIGHTS";
	284
	285	/**
	286	* The default value for the AI_CONFIG_PP_LBW_MAX_WEIGHTS setting.
	287	*/
	288	const AI_LMW_MAX_WEIGHTS = 0x4;
	289
	290	/**
	291	* Sets the size of the post-transform vertex cache to optimize the
	292	* vertices for. This configures the <code>ImproveCacheLocality</code> step.
	293	*
	294	* The size is given in vertices. Of course you can't know how the vertex
	295	* format will exactly look like after the import returns, but you can still
	296	* guess what your meshes will probably have.
	297	*
	298	* The default value results in slight performance improvements for most
	299	* nVidia/AMD cards since 2002.
	300	*
	301	* Default value: PP_ICL_PTCACHE_SIZE
	302	*
	303	* Property type: integer.
	304	*/
	305	const char* AI_CONFIG_PP_ICL_PTCACHE_SIZE = "PP_ICL_PTCACHE_SIZE";
	306
	307	/**
	308	* The default value for the AI_CONFIG_PP_ICL_PTCACHE_SIZE config option.
	309	*/
	310	const PP_ICL_PTCACHE_SIZE = 12;
	311
	312	/**
	313	* Components of the <code>aiScene</code> and <code>aiMesh</code> data
	314	* structures that can be excluded from the import by using the
	315	* <code>RemoveComponent</code> step.
	316	*
	317	* See the documentation to <code>RemoveComponent</code> for more details.
	318	*/
	319	enum aiComponent : uint {
	320	/**
	321	* Normal vectors.
	322	*/
	323	NORMALS = 0x2,
	324
	325	/**
	326	* Tangents and bitangents.
	327	*/
	328	TANGENTS_AND_BITANGENTS = 0x4,
	329
	330	/**
	331	* <em>All</em> color sets.
	332	*
	333	* Use aiComponent_COLORSn( N ) to specify the N'th set.
	334	*/
	335	COLORS = 0x8,
	336
	337	/**
	338	* <em>All</em> texture UV coordinate sets.
	339	*
	340	* Use aiComponent_TEXCOORDn( N ) to specify the N'th set.
	341	*/
	342	TEXCOORDS = 0x10,
	343
	344	/**
	345	* Bone weights from all meshes.
	346	*
	347	* The corresponding scenegraph nodes are <em>not</em> removed. Use the
	348	* <code>OptimizeGraph</code> step to do this.
	349	*/
	350	BONEWEIGHTS = 0x20,
	351
	352	/**
	353	* Node animations (<code>aiScene.mAnimations</code>).
	354	*
	355	* The corresponding scenegraph nodes are <em>not</em> removed. Use the
	356	* <code>OptimizeGraph</code> step to do this.
	357	*/
	358	ANIMATIONS = 0x40,
	359
	360	/**
	361	* Embedded textures (<code>aiScene.mTextures</code>).
	362	*/
	363	TEXTURES = 0x80,
	364
	365	/**
	366	* Light sources (<code>aiScene.mLights</code>).
	367	*
	368	* The corresponding scenegraph nodes are <em>not</em> removed. Use the
	369	* <code>OptimizeGraph</code> step to do this.
	370	*/
	371	LIGHTS = 0x100,
	372
	373	/**
	374	* Cameras (<code>aiScene.mCameras</code>).
	375	*
	376	* The corresponding scenegraph nodes are <em>not</em> removed. Use the
	377	* <code>OptimizeGraph</code> step to do this.
	378	*/
	379	CAMERAS = 0x200,
	380
	381	/**
	382	* Meshes (<code>aiScene.mMeshes</code>).
	383	*/
	384	MESHES = 0x400,
	385
	386	/** Materials.
	387	*
	388	* One default material will be generated, so
	389	* <code>aiScene.mNumMaterials</code> will be 1.
	390	*/
	391	MATERIALS = 0x800
	392	}
	393
	394	/**
	395	* Specifies a certain color channel to remove.
	396	*/
	397	uint aiComponent_COLORSn( uint n ) { return 1u << ( n + 20u ); }
	398
	399	/**
	400	* Specifies a certain UV coordinate channel to remove.
	401	*/
	402	uint aiComponent_TEXCOORDSn( uint n ) { return 1u << ( n + 25u ); }
	403
	404	/**
	405	* Input parameter to the <code>RemoveComponent</code> step:
	406	* Specifies the parts of the data structure to be removed.
	407	*
	408	* See the documentation to this step for further details.
	409	*
	410	* Default value: 0
	411	*
	412	* Property type: integer (bitwise combination of <code>aiComponent</code>
	413	* flags).
	414	*
	415	* Note: If no valid mesh is remaining after the step has been executed, the
	416	* import <em>fails</em>, because there is no data to work on anymore.
	417	*/
	418	const char* AI_CONFIG_PP_RVC_FLAGS = "PP_RVC_FLAGS";
	419
	420	/**
	421	* Input parameter to the <code>SortByPType</code> step:
	422	* Specifies which primitive types are removed by the step.
	423	*
	424	* This is a bitwise combination of the <code>aiPrimitiveType</code> flags.
	425	* Specifying all of them is illegal, of course. A typical use would be to
	426	* exclude all line and point meshes from the import.
	427	*
	428	* Default value: 0
	429	*
	430	* Property type: integer.
	431	*/
	432	const char* AI_CONFIG_PP_SBP_REMOVE = "PP_SBP_REMOVE";
	433
	434	/**
	435	* Input parameter to the <code>FindInvalidData</code> step:
	436	* Specifies the floating-point accuracy for animation values.
	437	*
	438	* The step checks for animation tracks where all frame values are
	439	* absolutely equal and removes them. This tweakable controls the epsilon
	440	* for floating-point comparisons – two keys are considered equal if the
	441	* invariant abs(n0-n1) > epsilon holds true for all vector respectively
	442	* quaternion components.
	443	*
	444	* Default value: 0 (exact comparison).
	445	*
	446	* Property type: float.
	447	*/
	448	const char* AI_CONFIG_PP_FID_ANIM_ACCURACY = "PP_FID_ANIM_ACCURACY";
	449
	450	/**
	451	* The <code>TransformUVCoords</code> step evaluates UV scalings.
	452	*/
	453	const AI_UVTRAFO_SCALING = 0x1;
	454
	455	/**
	456	* The <code>TransformUVCoords</code> step evaluates UV rotations.
	457	*/
	458	const AI_UVTRAFO_ROTATION = 0x2;
	459
	460	/**
	461	* The <code>TransformUVCoords</code> step evaluates UV translation.
	462	*/
	463	const AI_UVTRAFO_TRANSLATION = 0x4;
	464
	465	/**
	466	* The <code>TransformUVCoords</code> step evaluates all UV translations.
	467	*/
	468	const AI_UVTRAFO_ALL =
	469	AI_UVTRAFO_SCALING
	470	\| AI_UVTRAFO_ROTATION
	471	\| AI_UVTRAFO_TRANSLATION;
	472
	473	/**
	474	* Input parameter to the <code>TransformUVCoords</code> step: Specifies
	475	* which UV transformations are evaluated.
	476	*
	477	* Default value: AI_UVTRAFO_ALL.
	478	*
	479	* Property type: integer (bitwise combination of the
	480	* <code>AI_UVTRAFO_XXX<code> flag).
	481	*/
	482	const char* AI_CONFIG_PP_TUV_EVALUATE = "PP_TUV_EVALUATE";
	483
	484	/**
	485	* A hint to assimp to favour speed against import quality.
	486	*
	487	* Enabling this option may result in faster loading, but it needn't.
	488	* It represents just a hint to loaders and post-processing steps to use
	489	* faster code paths, if possible.
	490	*
	491	* Default value: false.
	492	*
	493	* Property type: bool.
	494	*/
	495	const char* AI_CONFIG_FAVOUR_SPEED = "FAVOUR_SPEED";
	496
	497
	498	/*
	499	* Importer settings.
	500	*
	501	* Various stuff to fine-tune the behaviour of specific importer plugins.
	502	*/
	503
	504	/**
	505	* Set the vertex animation keyframe to be imported.
	506	*
	507	* Assimp does not support vertex keyframes (only bone animation is
	508	* supported). The library reads only one frame of models with vertex
	509	* animations.
	510	*
	511	* Default value: 0 (first frame).
	512	*
	513	* Property type: integer.
	514	*
	515	* Note: This option applies to all importers. However, it is also possible
	516	* to override the global setting for a specific loader. You can use the
	517	* AI_CONFIG_IMPORT_XXX_KEYFRAME options (where XXX is a placeholder for
	518	* the file format for which you want to override the global setting).
	519	*/
	520	const char* AI_CONFIG_IMPORT_GLOBAL_KEYFRAME = "IMPORT_GLOBAL_KEYFRAME";
	521
	522	const char* AI_CONFIG_IMPORT_MD3_KEYFRAME = "IMPORT_MD3_KEYFRAME";
	523	const char* AI_CONFIG_IMPORT_MD2_KEYFRAME = "IMPORT_MD2_KEYFRAME";
	524	const char* AI_CONFIG_IMPORT_MDL_KEYFRAME = "IMPORT_MDL_KEYFRAME";
	525	const char* AI_CONFIG_IMPORT_MDC_KEYFRAME = "IMPORT_MDC_KEYFRAME";
	526	const char* AI_CONFIG_IMPORT_SMD_KEYFRAME = "IMPORT_SMD_KEYFRAME";
	527	const char* AI_CONFIG_IMPORT_UNREAL_KEYFRAME = "IMPORT_UNREAL_KEYFRAME";
	528
	529
	530	/**
	531	* Configures the AC loader to collect all surfaces which have the
	532	* "Backface cull" flag set in separate meshes.
	533	*
	534	* Default value: true.
	535	*
	536	* Property type: bool.
	537	*/
	538	const char* AI_CONFIG_IMPORT_AC_SEPARATE_BFCULL = "IMPORT_AC_SEPARATE_BFCULL";
	539
	540	/**
	541	* Configures the UNREAL 3D loader to separate faces with different surface
	542	* flags (e.g. two-sided vs. single-sided).
	543	*
	544	* Default value: true.
	545	*
	546	* Property type: bool.
	547	*/
	548	const char* AI_CONFIG_IMPORT_UNREAL_HANDLE_FLAGS = "UNREAL_HANDLE_FLAGS";
	549
	550	/**
	551	* Configures the terragen import plugin to compute uv's for terrains, if
	552	* not given. Furthermore, a default texture is assigned.
	553	*
	554	* UV coordinates for terrains are so simple to compute that you'll usually
	555	* want to compute them on your own, if you need them. This option is intended
	556	* for model viewers which want to offer an easy way to apply textures to
	557	* terrains.
	558	*
	559	* Default value: false.
	560	*
	561	* Property type: bool.
	562	*/
	563	const char* AI_CONFIG_IMPORT_TER_MAKE_UVS = "IMPORT_TER_MAKE_UVS";
	564
	565	/**
	566	* Configures the ASE loader to always reconstruct normal vectors basing on
	567	* the smoothing groups loaded from the file.
	568	*
	569	* Many ASE files have invalid normals (they're not orthonormal).
	570	*
	571	* Default value: true.
	572	*
	573	* Property type: bool.
	574	*/
	575	const char* AI_CONFIG_IMPORT_ASE_RECONSTRUCT_NORMALS = "IMPORT_ASE_RECONSTRUCT_NORMALS";
	576
	577	/**
	578	* Configures the M3D loader to detect and process multi-part Quake player
	579	* models.
	580	*
	581	* These models usually consist of three files, <code>lower.md3</code>,
	582	* <code>upper.md3</code> and <code>head.md3</code>. If this property is set
	583	* to true, Assimp will try to load and combine all three files if one of
	584	* them is loaded.
	585	*
	586	* Default value: true.
	587	*
	588	* Property type: bool.
	589	*/
	590	const char* AI_CONFIG_IMPORT_MD3_HANDLE_MULTIPART = "IMPORT_MD3_HANDLE_MULTIPART";
	591
	592	/**
	593	* Tells the MD3 loader which skin files to load.
	594	*
	595	* When loading MD3 files, Assimp checks whether a file
	596	* <code><md3_file_name>_<skin_name>.skin</code> is existing. These files
	597	* are used by Quake 3 to be able to assign different skins (e.g. red and
	598	* blue team) to models. 'default', 'red', 'blue' are typical skin names.
	599	*
	600	* Default value: "default".
	601	*
	602	* Property type: string.
	603	*/
	604	const char* AI_CONFIG_IMPORT_MD3_SKIN_NAME = "IMPORT_MD3_SKIN_NAME";
	605
	606	/**
	607	* Specify the Quake 3 shader file to be used for a particular MD3 file.
	608	* This can also be a search path.
	609	*
	610	* By default Assimp's behaviour is as follows: If a MD3 file
	611	* <code>[any_path]/models/[any_q3_subdir]/[model_name]/[file_name].md3</code>
	612	* is loaded, the library tries to locate the corresponding shader file in
	613	* <code>[any_path]/scripts/[model_name].shader</code>. This property
	614	* overrides this behaviour. It can either specify a full path to the shader
	615	* to be loaded or alternatively the path (relative or absolute) to the
	616	* directory where the shaders for all MD3s to be loaded reside. Assimp
	617	* attempts to open <code>[dir]/[model_name].shader</code> first,
	618	* <code>[dir]/[file_name].shader</code> is the fallback file. Note that
	619	* <code>[dir]</code> should have a terminal (back)slash.
	620	*
	621	* Default value: n/a.
	622	*
	623	* Property type: string.
	624	*/
	625	const char* AI_CONFIG_IMPORT_MD3_SHADER_SRC = "IMPORT_MD3_SHADER_SRC";
	626
	627	/**
	628	* Configures the LWO loader to load just one layer from the model.
	629	*
	630	* LWO files consist of layers and in some cases it could be useful to load
	631	* only one of them. This property can be either a string – which specifies
	632	* the name of the layer – or an integer – the index of the layer. If the
	633	* property is not set the whole LWO model is loaded. Loading fails if the
	634	* requested layer is not available. The layer index is zero-based and the
	635	* layer name may not be empty.
	636	*
	637	* Default value: all layers are loaded.
	638	*
	639	* Property type: integer/string.
	640	*/
	641	const char* AI_CONFIG_IMPORT_LWO_ONE_LAYER_ONLY = "IMPORT_LWO_ONE_LAYER_ONLY";
	642
	643	/**
	644	* Configures the MD5 loader to not load the MD5ANIM file for a MD5MESH file
	645	* automatically.
	646	*
	647	* The default strategy is to look for a file with the same name but the
	648	* MD5ANIM extension in the same directory. If it is found, it is loaded
	649	* and combined with the MD5MESH file. This configuration option can be
	650	* used to disable this behaviour.
	651	*
	652	* Default value: false.
	653	*
	654	* Property type: bool.
	655	*/
	656	const char* AI_CONFIG_IMPORT_MD5_NO_ANIM_AUTOLOAD = "IMPORT_MD5_NO_ANIM_AUTOLOAD";
	657
	658	/**
	659	* Defines the begin of the time range for which the LWS loader evaluates
	660	* animations and computes <code>aiNodeAnim</code>s.
	661	*
	662	* Assimp provides full conversion of LightWave's envelope system, including
	663	* pre and post conditions. The loader computes linearly subsampled animation
	664	* chanels with the frame rate given in the LWS file. This property defines
	665	* the start time. Note: animation channels are only generated if a node
	666	* has at least one envelope with more tan one key assigned. This property.
	667	* is given in frames, '0' is the first frame. By default, if this property
	668	* is not set, the importer takes the animation start from the input LWS
	669	* file ('FirstFrame' line).
	670	*
	671	* Default value: read from file.
	672	*
	673	* Property type: integer.
	674	*
	675	* See: <code>AI_CONFIG_IMPORT_LWS_ANIM_END</code> – end of the imported
	676	* time range
	677	*/
	678	const char* AI_CONFIG_IMPORT_LWS_ANIM_START = "IMPORT_LWS_ANIM_START";
	679	const char* AI_CONFIG_IMPORT_LWS_ANIM_END = "IMPORT_LWS_ANIM_END";
	680
	681	/**
	682	* Defines the output frame rate of the IRR loader.
	683	*
	684	* IRR animations are difficult to convert for Assimp and there will always
	685	* be a loss of quality. This setting defines how many keys per second are
	686	* returned by the converter.
	687	*
	688	* Default value: 100.
	689	*
	690	* Property type: integer.
	691	*/
	692	const char* AI_CONFIG_IMPORT_IRR_ANIM_FPS = "IMPORT_IRR_ANIM_FPS";
	693
	694	/**
	695	* Ogre Importer will try to load this material file.
	696	*
	697	* Ogre Mehs contain only the material name, not the material file. If there
	698	* is no material file with the same name as the material, Ogre Importer
	699	* will try to load this file and search the material in it.
	700	*
	701	* Property type: string. Default value: "Scene.material".
	702	*/
	703	const char* AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE = "IMPORT_OGRE_MATERIAL_FILE";
	704	}

+140

-0

port/dAssimp/assimp/fileIO.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* The data structures necessary to use Assimip with a custom IO system.
	43	*/
	44	module assimp.fileIO;
	45
	46	import assimp.types;
	47
	48	extern ( C ) {
	49	// aiFile callbacks
	50	alias size_t function( aiFile, char, size_t, size_t ) aiFileWriteProc;
	51	alias size_t function( aiFile, char, size_t, size_t ) aiFileReadProc;
	52	alias size_t function( aiFile* ) aiFileTellProc;
	53	alias void function( aiFile* ) aiFileFlushProc;
	54	alias aiReturn function( aiFile*, size_t, aiOrigin ) aiFileSeek;
	55
	56	// aiFileIO callbacks
	57	alias aiFile* function( aiFileIO, char, char* ) aiFileOpenProc;
	58	alias void function( aiFileIO, aiFile ) aiFileCloseProc;
	59
	60	/**
	61	* Represents user-defined data.
	62	*/
	63	alias char* aiUserData;
	64
	65	/**
	66	* File system callbacks.
	67	*
	68	* Provided are functions to open and close files. Supply a custom structure
	69	* to the import function. If you don't, a default implementation is used.
	70	* Use custom file systems to enable reading from other sources, such as
	71	* ZIPs or memory locations.
	72	*/
	73	struct aiFileIO {
	74	/**
	75	* Function used to open a new file
	76	*/
	77	aiFileOpenProc OpenProc;
	78
	79	/**
	80	* Function used to close an existing file
	81	*/
	82	aiFileCloseProc CloseProc;
	83
	84	/**
	85	* User-defined, opaque data.
	86	*/
	87	aiUserData UserData;
	88	}
	89
	90	/**
	91	* File callbacks.
	92	*
	93	* Actually, it's a data structure to wrap a set of <code>fXXXX</code>
	94	* (e.g <code>fopen()</code>) replacement functions.
	95	*
	96	* The default implementation of the functions utilizes the <code>fXXX</code>
	97	* functions from the CRT. However, you can supply a custom implementation
	98	* to Assimp by passing a custom <code>aiFileIO</code>. Use this to enable
	99	* reading from other sources such as ZIP archives or memory locations.
	100	*/
	101	struct aiFile {
	102	/**
	103	* Callback to read from a file.
	104	*/
	105	aiFileReadProc ReadProc;
	106
	107	/**
	108	* Callback to write to a file.
	109	*/
	110	aiFileWriteProc WriteProc;
	111
	112	/**
	113	* Callback to retrieve the current position of the file cursor
	114	* (<code>ftell()</code>).
	115	*/
	116	aiFileTellProc TellProc;
	117
	118	/**
	119	* Callback to retrieve the size of the file, in bytes.
	120	*/
	121	aiFileTellProc FileSizeProc;
	122
	123	/**
	124	* Callback to set the current position of the file cursor
	125	* (<code>fseek()</code>).
	126	*/
	127	aiFileSeek SeekProc;
	128
	129	/**
	130	* Callback to flush the file contents.
	131	*/
	132	aiFileFlushProc FlushProc;
	133
	134	/**
	135	* User-defined, opaque data.
	136	*/
	137	aiUserData UserData;
	138	}
	139	}

+215

-0

port/dAssimp/assimp/light.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Contains the data structures which are used to store the imported information
	43	* about the light sources in the scene.
	44	*/
	45	module assimp.light;
	46
	47	import assimp.math;
	48	import assimp.types;
	49
	50	extern ( C ) {
	51	/**
	52	* Enumerates all supported types of light sources.
	53	*/
	54	enum aiLightSourceType : uint {
	55	UNDEFINED = 0x0,
	56
	57	/**
	58	* A directional light source has a well-defined direction but is
	59	* infinitely far away. That's quite a good approximation for sun light.
	60	*/
	61	DIRECTIONAL = 0x1,
	62
	63	/**
	64	* A point light source has a well-defined position in space but no
	65	* direction – it emits light in all directions. A normal bulb is a point
	66	* light.
	67	*/
	68	POINT = 0x2,
	69
	70	/**
	71	* A spot light source emits light in a specific angle. It has a position
	72	* and a direction it is pointing to. A good example for a spot light is
	73	* a light spot in sport arenas.
	74	*/
	75	SPOT = 0x3
	76	}
	77
	78	/**
	79	* Helper structure to describe a light source.
	80	*
	81	* Assimp supports multiple sorts of light sources, including directional,
	82	* point and spot lights. All of them are defined with just a single
	83	* structure and distinguished by their parameters.
	84	*
	85	* Note: Some file formats (such as 3DS, ASE) export a "target point" – the
	86	* point a spot light is looking at (it can even be animated). Assimp
	87	* writes the target point as a subnode of a spotlights's main node, called
	88	* <code>[spotName].Target</code>. However, this is just additional
	89	* information then, the transformation tracks of the main node make the
	90	* spot light already point in the right direction.
	91	*/
	92	struct aiLight {
	93	/**
	94	* The name of the light source.
	95	*
	96	* There must be a node in the scenegraph with the same name. This node
	97	* specifies the position of the light in the scenehierarchy and can be
	98	* animated.
	99	*/
	100	aiString mName;
	101
	102	/**
	103	* The type of the light source.
	104	*
	105	* <code>aiLightSource.UNDEFINED</code> is not a valid value for this
	106	* member.
	107	*/
	108	aiLightSourceType mType;
	109
	110	/**
	111	* Position of the light source in space. Relative to the transformation
	112	* of the node corresponding to the light.
	113	*
	114	* The position is undefined for directional lights.
	115	*/
	116	aiVector3D mPosition;
	117
	118	/**
	119	* Direction of the light source in space. Relative to the transformation
	120	* of the node corresponding to the light.
	121	*
	122	* The direction is undefined for point lights. The vector may be
	123	* normalized, but it needn't.
	124	*/
	125	aiVector3D mDirection;
	126
	127	/**
	128	* Constant light attenuation factor.
	129	*
	130	* The intensity of the light source at a given distance
	131	* <code>d</code> from the light's position is
	132	* <code>1/( att0 + att1 * d + att2 * d * d )</code>. This member
	133	* corresponds to the <code>att0</code> variable in the equation.
	134	*
	135	* Naturally undefined for directional lights.
	136	*/
	137	float mAttenuationConstant;
	138
	139	/**
	140	* Linear light attenuation factor.
	141	*
	142	* The intensity of the light source at a given distance
	143	* <code>d</code> from the light's position is
	144	* <code>1/( att0 + att1 * d + att2 * d * d )</code>. This member
	145	* corresponds to the <code>att1</code> variable in the equation.
	146	*
	147	* Naturally undefined for directional lights.
	148	*/
	149	float mAttenuationLinear;
	150
	151	/**
	152	* Quadratic light attenuation factor.
	153	*
	154	* The intensity of the light source at a given distance
	155	* <code>d</code> from the light's position is
	156	* <code>1/( att0 + att1 * d + att2 * d * d )</code>. This member
	157	* corresponds to the <code>att2</code> variable in the equation.
	158	*
	159	* Naturally undefined for directional lights.
	160	*/
	161	float mAttenuationQuadratic;
	162
	163	/**
	164	* Diffuse color of the light source
	165	*
	166	* The diffuse light color is multiplied with the diffuse material color
	167	* to obtain the final color that contributes to the diffuse shading term.
	168	*/
	169	aiColor3D mColorDiffuse;
	170
	171	/**
	172	* Specular color of the light source
	173	*
	174	* The specular light color is multiplied with the specular material
	175	* color to obtain the final color that contributes to the specular
	176	* shading term.
	177	*/
	178	aiColor3D mColorSpecular;
	179
	180	/**
	181	* Ambient color of the light source
	182	*
	183	* The ambient light color is multiplied with the ambient material color
	184	* to obtain the final color that contributes to the ambient shading term.
	185	*
	186	* Most renderers will ignore this value it, is just a remaining of the
	187	* fixed-function pipeline that is still supported by quite many file
	188	* formats.
	189	*/
	190	aiColor3D mColorAmbient;
	191
	192	/**
	193	* Inner angle of a spot light's light cone.
	194	*
	195	* The spot light has maximum influence on objects inside this angle. The
	196	* angle is given in radians. It is 2PI for point lights and undefined
	197	* for directional lights.
	198	*/
	199	float mAngleInnerCone;
	200
	201	/**
	202	* Outer angle of a spot light's light cone.
	203	*
	204	* The spot light does not affect objects outside this angle. The angle
	205	* is given in radians. It is 2PI for point lights and undefined for
	206	* directional lights. The outer angle must be greater than or equal to
	207	* the inner angle.
	208	*
	209	* It is assumed that the application uses a smooth interpolation between
	210	* the inner and the outer cone of the spot light.
	211	*/
	212	float mAngleOuterCone;
	213	}
	214	}

+193

-0

port/dAssimp/assimp/loader.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Provides facilities for dynamically loading the Assimp library.
	43	*
	44	* Currently requires Tango, but there is no reason why Phobos could not be
	45	* supported too.
	46	*/
	47	module assimp.loader;
	48
	49	import assimp.api;
	50	import tango.io.Stdout;
	51	import tango.sys.SharedLib;
	52
	53	const uint ASSIMP_BINDINGS_MAJOR = 2;
	54	const uint ASSIMP_BINDINGS_MINOR = 0;
	55
	56	/**
	57	* Loader class for dynamically loading the Assimp library.
	58	*
	59	* The library is »reference-counted«, meaning that the library is not
	60	* unloaded on a call to <code>unload()</code> if there are still other
	61	* references to it.
	62	*/
	63	struct Assimp {
	64	public:
	65	/**
	66	* Loads the library if it is not already loaded and increases the
	67	* reference counter.
	68	*
	69	* The library file (<code>libassimp.so</code> on POSIX systems,
	70	* <code>Assimp32.dll</code> on Win32) is loaded via Tango's SharedLib
	71	* class.
	72	*/
	73	static void load() {
	74	if ( m_sRefCount == 0 ) {
	75	version ( Posix ) {
	76	version ( OSX ) {
	77	m_sLibrary = SharedLib.load( "libassimp.dylib" );
	78	} else {
	79	m_sLibrary = SharedLib.load( "libassimp.so" );
	80	}
	81	}
	82	version ( Win32 ) {
	83	m_sLibrary = SharedLib.load( "Assimp32.dll" );
	84	}
	85
	86	// Versioning
	87	mixin( bindCode( "aiGetLegalString" ) );
	88	mixin( bindCode( "aiGetVersionMinor" ) );
	89	mixin( bindCode( "aiGetVersionMajor" ) );
	90	mixin( bindCode( "aiGetVersionRevision" ) );
	91	mixin( bindCode( "aiGetCompileFlags" ) );
	92
	93	// Check for version mismatch between the external, dynamically loaded
	94	// library and the version the bindings were created against.
	95	uint libMajor = aiGetVersionMajor();
	96	uint libMinor = aiGetVersionMinor();
	97
	98	if ( ( libMajor < ASSIMP_BINDINGS_MAJOR ) \|\|
	99	( libMinor < ASSIMP_BINDINGS_MINOR ) ) {
	100	Stdout.format(
	101	"WARNING: Assimp version too old (loaded library: {}.{}, " ~
	102	"bindings: {}.{})!",
	103	libMajor,
	104	libMinor,
	105	ASSIMP_BINDINGS_MAJOR,
	106	ASSIMP_BINDINGS_MINOR
	107	).newline;
	108	}
	109
	110	if ( libMajor > ASSIMP_BINDINGS_MAJOR ) {
	111	Stdout.format(
	112	"WARNING: Assimp version too new (loaded library: {}.{}, " ~
	113	"bindings: {}.{})!",
	114	libMajor,
	115	libMinor,
	116	ASSIMP_BINDINGS_MAJOR,
	117	ASSIMP_BINDINGS_MINOR
	118	).newline;
	119	}
	120
	121	// General API
	122	mixin( bindCode( "aiImportFile" ) );
	123	mixin( bindCode( "aiImportFileEx" ) );
	124	mixin( bindCode( "aiImportFileFromMemory" ) );
	125	mixin( bindCode( "aiApplyPostProcessing" ) );
	126	mixin( bindCode( "aiGetPredefinedLogStream" ) );
	127	mixin( bindCode( "aiAttachLogStream" ) );
	128	mixin( bindCode( "aiEnableVerboseLogging" ) );
	129	mixin( bindCode( "aiDetachLogStream" ) );
	130	mixin( bindCode( "aiDetachAllLogStreams" ) );
	131	mixin( bindCode( "aiReleaseImport" ) );
	132	mixin( bindCode( "aiGetErrorString" ) );
	133	mixin( bindCode( "aiIsExtensionSupported" ) );
	134	mixin( bindCode( "aiGetExtensionList" ) );
	135	mixin( bindCode( "aiGetMemoryRequirements" ) );
	136	mixin( bindCode( "aiSetImportPropertyInteger" ) );
	137	mixin( bindCode( "aiSetImportPropertyFloat" ) );
	138	mixin( bindCode( "aiSetImportPropertyString" ) );
	139
	140	// Mathematical functions
	141	mixin( bindCode( "aiCreateQuaternionFromMatrix" ) );
	142	mixin( bindCode( "aiDecomposeMatrix" ) );
	143	mixin( bindCode( "aiTransposeMatrix4" ) );
	144	mixin( bindCode( "aiTransposeMatrix3" ) );
	145	mixin( bindCode( "aiTransformVecByMatrix3" ) );
	146	mixin( bindCode( "aiTransformVecByMatrix4" ) );
	147	mixin( bindCode( "aiMultiplyMatrix4" ) );
	148	mixin( bindCode( "aiMultiplyMatrix3" ) );
	149	mixin( bindCode( "aiIdentityMatrix3" ) );
	150	mixin( bindCode( "aiIdentityMatrix4" ) );
	151
	152	// Material system
	153	mixin( bindCode( "aiGetMaterialProperty" ) );
	154	mixin( bindCode( "aiGetMaterialFloatArray" ) );
	155	mixin( bindCode( "aiGetMaterialIntegerArray" ) );
	156	mixin( bindCode( "aiGetMaterialColor" ) );
	157	mixin( bindCode( "aiGetMaterialString" ) );
	158	mixin( bindCode( "aiGetMaterialTextureCount" ) );
	159	mixin( bindCode( "aiGetMaterialTexture" ) );
	160	}
	161	++m_sRefCount;
	162	}
	163
	164	/**
	165	* Decreases the reference counter and unloads the library if this was the
	166	* last reference.
	167	*/
	168	static void unload() {
	169	assert( m_sRefCount > 0 );
	170	--m_sRefCount;
	171
	172	if ( m_sRefCount == 0 ) {
	173	m_sLibrary.unload();
	174	}
	175	}
	176
	177	private:
	178	/// Current number of references to the library.
	179	static uint m_sRefCount;
	180
	181	/// Library handle.
	182	static SharedLib m_sLibrary;
	183	}
	184
	185	/**
	186	* Private helper function which constructs the bind command for a symbol to
	187	* keep the code DRY.
	188	*/
	189	private char[] bindCode( char[] symbol ) {
	190	return symbol ~ " = cast( typeof( " ~ symbol ~
	191	" ) )m_sLibrary.getSymbol( `" ~ symbol ~ "` );";
	192	}

+641

-0

port/dAssimp/assimp/material.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Contains the material system which stores the imported material information.
	43	*/
	44	module assimp.material;
	45
	46	import assimp.math;
	47	import assimp.types;
	48
	49	extern ( C ) {
	50	/**
	51	* Default material names for meshes without UV coordinates.
	52	*/
	53	const char* AI_DEFAULT_MATERIAL_NAME = "aiDefaultMat";
	54
	55	/**
	56	* Default material names for meshes with UV coordinates.
	57	*/
	58	const char* AI_DEFAULT_TEXTURED_MATERIAL_NAME = "TexturedDefaultMaterial";
	59
	60	/**
	61	* Defines how the Nth texture of a specific type is combined with the
	62	* result of all previous layers.
	63	*
	64	* Example (left: key, right: value):
	65	* <pre> DiffColor0 - gray
	66	* DiffTextureOp0 - aiTextureOpMultiply
	67	* DiffTexture0 - tex1.png
	68	* DiffTextureOp0 - aiTextureOpAdd
	69	* DiffTexture1 - tex2.png</pre>
	70	* Written as equation, the final diffuse term for a specific pixel would be:
	71	* <pre>diffFinal = DiffColor0 * sampleTex( DiffTexture0, UV0 ) +
	72	* sampleTex( DiffTexture1, UV0 ) * diffContrib;</pre>
	73	* where <code>diffContrib</code> is the intensity of the incoming light for
	74	* that pixel.
	75	*/
	76	enum aiTextureOp : uint {
	77	/**
	78	* <code>T = T1 * T2</code>
	79	*/
	80	Multiply = 0x0,
	81
	82	/**
	83	* <code>T = T1 + T2</code>
	84	*/
	85	Add = 0x1,
	86
	87	/**
	88	* <code>T = T1 - T2</code>
	89	*/
	90	Subtract = 0x2,
	91
	92	/**
	93	* <code>T = T1 / T2</code>
	94	*/
	95	Divide = 0x3,
	96
	97	/**
	98	* <code>T = ( T1 + T2 ) - ( T1 * T2 )</code>
	99	*/
	100	SmoothAdd = 0x4,
	101
	102	/**
	103	* <code>T = T1 + ( T2 - 0.5 )</code>
	104	*/
	105	SignedAdd = 0x5
	106	}
	107
	108	/**
	109	* Defines how UV coordinates outside the <code>[0..1]</code> range are
	110	* handled.
	111	*
	112	* Commonly refered to as 'wrapping mode'.
	113	*/
	114	enum aiTextureMapMode : uint {
	115	/**
	116	* A texture coordinate <code>u \| v</code> is translated to
	117	* <code>(u%1) \| (v%1)</code>.
	118	*/
	119	Wrap = 0x0,
	120
	121	/**
	122	* Texture coordinates are clamped to the nearest valid value.
	123	*/
	124	Clamp = 0x1,
	125
	126	/**
	127	* If the texture coordinates for a pixel are outside
	128	* <code>[0..1]</code>, the texture is not applied to that pixel.
	129	*/
	130	Decal = 0x3,
	131
	132	/**
	133	* A texture coordinate <code>u \| v</code> becomes
	134	* <code>(u%1) \| (v%1)</code> if <code>(u-(u%1))%2</code> is
	135	* zero and <code>(1-(u%1)) \| (1-(v%1))</code> otherwise.
	136	*/
	137	Mirror = 0x2
	138	}
	139
	140	/**
	141	* Defines how the mapping coords for a texture are generated.
	142	*
	143	* Real-time applications typically require full UV coordinates, so the use of
	144	* the <code>aiProcess.GenUVCoords</code> step is highly recommended. It
	145	* generates proper UV channels for non-UV mapped objects, as long as an
	146	* accurate description how the mapping should look like (e.g spherical) is
	147	* given. See the <code>AI_MATKEY_MAPPING</code> property for more details.
	148	*/
	149	enum aiTextureMapping : uint {
	150	/**
	151	* The mapping coordinates are taken from an UV channel.
	152	*
	153	* The <code>AI_MATKEY_UVSRC</code> key specifies from which (remember,
	154	* meshes can have more than one UV channel).
	155	*/
	156	UV = 0x0,
	157
	158	/**
	159	* Spherical mapping.
	160	*/
	161	SPHERE = 0x1,
	162
	163	/**
	164	* Cylindrical mapping.
	165	*/
	166	CYLINDER = 0x2,
	167
	168	/**
	169	* Cubic mapping.
	170	*/
	171	BOX = 0x3,
	172
	173	/**
	174	* Planar mapping.
	175	*/
	176	PLANE = 0x4,
	177
	178	/**
	179	* Undefined mapping.
	180	*/
	181	OTHER = 0x5
	182	}
	183
	184	/**
	185	* Defines the purpose of a texture
	186	*
	187	* This is a very difficult topic. Different 3D packages support different
	188	* kinds of textures. For very common texture types, such as bumpmaps, the
	189	* rendering results depend on implementation details in the rendering
	190	* pipelines of these applications. Assimp loads all texture references from
	191	* the model file and tries to determine which of the predefined texture
	192	* types below is the best choice to match the original use of the texture
	193	* as closely as possible.
	194	*
	195	* In content pipelines you'll usually define how textures have to be
	196	* handled, and the artists working on models have to conform to this
	197	* specification, regardless which 3D tool they're using.
	198	*/
	199	enum aiTextureType : uint {
	200	/**
	201	* No texture, but the value to be used for
	202	* <code>aiMaterialProperty.mSemantic</code> for all material properties
	203	* <em>not</em> related to textures.
	204	*/
	205	NONE = 0x0,
	206
	207	/**
	208	* The texture is combined with the result of the diffuse lighting
	209	* equation.
	210	*/
	211	DIFFUSE = 0x1,
	212
	213	/**
	214	* The texture is combined with the result of the specular lighting
	215	* equation.
	216	*/
	217	SPECULAR = 0x2,
	218
	219	/**
	220	* The texture is combined with the result of the ambient lighting
	221	* equation.
	222	*/
	223	AMBIENT = 0x3,
	224
	225	/**
	226	* The texture is added to the result of the lighting calculation. It
	227	* isn't influenced by incoming light.
	228	*/
	229	EMISSIVE = 0x4,
	230
	231	/**
	232	* The texture is a height map.
	233	*
	234	* By convention, higher grey-scale values stand for higher elevations
	235	* from the base height.
	236	*/
	237	HEIGHT = 0x5,
	238
	239	/**
	240	* The texture is a (tangent space) normal-map.
	241	*
	242	* Again, there are several conventions for tangent-space normal maps.
	243	* Assimp does (intentionally) not differenciate here.
	244	*/
	245	NORMALS = 0x6,
	246
	247	/**
	248	* The texture defines the glossiness of the material.
	249	*
	250	* The glossiness is in fact the exponent of the specular (phong)
	251	* lighting equation. Usually there is a conversion function defined to
	252	* map the linear color values in the texture to a suitable exponent.
	253	*/
	254	SHININESS = 0x7,
	255
	256	/**
	257	* The texture defines per-pixel opacity.
	258	*
	259	* Usually white means opaque and black means transparent.
	260	*/
	261	OPACITY = 0x8,
	262
	263	/**
	264	* Displacement texture.
	265	*
	266	* The exact purpose and format is application-dependent. Higher color
	267	* values stand for higher vertex displacements.
	268	*/
	269	DISPLACEMENT = 0x9,
	270
	271	/**
	272	* Lightmap or ambient occlusion texture.
	273	*
	274	* Both lightmaps and dedicated ambient occlusion maps are covered by
	275	* this material property. The texture contains a scaling value for the
	276	* final color value of a pixel. Its intensity is not affected by
	277	* incoming light.
	278	*/
	279	LIGHTMAP = 0xA,
	280
	281	/**
	282	* Reflection texture.
	283	*
	284	* Contains the color of a perfect mirror reflection. Rarely used, almost
	285	* never for real-time applications.
	286	*/
	287	REFLECTION = 0xB,
	288
	289	/**
	290	* Unknown texture.
	291	*
	292	* A texture reference that does not match any of the definitions above is
	293	* considered to be 'unknown'. It is still imported, but is excluded from
	294	* any further postprocessing.
	295	*/
	296	UNKNOWN = 0xC
	297	}
	298
	299	/**
	300	* Defines all shading models supported by the library
	301	*
	302	* The list of shading modes has been taken from Blender. See Blender
	303	* documentation for more information. The API does not distinguish between
	304	* "specular" and "diffuse" shaders (thus the specular term for diffuse
	305	* shading models like Oren-Nayar remains undefined).
	306	*
	307	* Again, this value is just a hint. Assimp tries to select the shader whose
	308	* most common implementation matches the original rendering results of the
	309	* 3D modeller which wrote a particular model as closely as possible.
	310	*/
	311	enum aiShadingMode : uint {
	312	/**
	313	* Flat shading.
	314	*
	315	* Shading is done on per-face base diffuse only. Also known as
	316	* »faceted shading«.
	317	*/
	318	Flat = 0x1,
	319
	320	/**
	321	* Simple Gouraud shading.
	322	*/
	323	Gouraud = 0x2,
	324
	325	/**
	326	* Phong-Shading.
	327	*/
	328	Phong = 0x3,
	329
	330	/**
	331	* Phong-Blinn-Shading.
	332	*/
	333	Blinn = 0x4,
	334
	335	/**
	336	* Per-pixel toon shading.
	337	*
	338	* Often referred to as »comic shading«.
	339	*/
	340	Toon = 0x5,
	341
	342	/**
	343	* Per-pixel Oren-Nayar shading.
	344	*
	345	* Extension to standard Lambertian shading, taking the roughness of the
	346	* material into account.
	347	*/
	348	OrenNayar = 0x6,
	349
	350	/**
	351	* Per-pixel Minnaert shading.
	352	*
	353	* Extension to standard Lambertian shading, taking the "darkness" of the
	354	* material into account.
	355	*/
	356	Minnaert = 0x7,
	357
	358	/**
	359	* Per-pixel Cook-Torrance shading.
	360	*
	361	* Special shader for metallic surfaces.
	362	*/
	363	CookTorrance = 0x8,
	364
	365	/**
	366	* No shading at all.
	367	*
	368	* Constant light influence of 1.
	369	*/
	370	NoShading = 0x9,
	371
	372	/**
	373	* Fresnel shading.
	374	*/
	375	Fresnel = 0xa
	376	}
	377
	378	/**
	379	* Defines some mixed flags for a particular texture.
	380	*
	381	* Usually you'll instruct your cg artists how textures have to look like
	382	* and how they will be processed in your application. However, if you use
	383	* Assimp for completely generic loading purposes you might also need to
	384	* process these flags in order to display as many 'unknown' 3D models as
	385	* possible correctly.
	386	*
	387	* This corresponds to the <code>AI_MATKEY_TEXFLAGS</code> property.
	388	*/
	389	enum aiTextureFlags : uint {
	390	/**
	391	* The texture's color values have to be inverted (i.e. <code>1-n</code>
	392	* component-wise).
	393	*/
	394	Invert = 0x1,
	395
	396	/**
	397	* Explicit request to the application to process the alpha channel of the
	398	* texture.
	399	*
	400	* Mutually exclusive with <code>IgnoreAlpha</code>. These flags are
	401	* set if the library can say for sure that the alpha channel is used/is
	402	* not used. If the model format does not define this, it is left to the
	403	* application to decide whether the texture alpha channel – if any – is
	404	* evaluated or not.
	405	*/
	406	UseAlpha = 0x2,
	407
	408	/**
	409	* Explicit request to the application to ignore the alpha channel of the
	410	* texture.
	411	*
	412	* Mutually exclusive with <code>UseAlpha</code>.
	413	*/
	414	IgnoreAlpha = 0x4
	415	}
	416
	417
	418	/**
	419	* Defines alpha-blend flags.
	420	*
	421	* If you're familiar with OpenGL or D3D, these flags aren't new to you.
	422	* They define how the final color value of a pixel is computed, based on
	423	* the previous color at that pixel and the new color value from the
	424	* material.
	425	*
	426	* The basic blending formula is
	427	* <code>SourceColor * SourceBlend + DestColor * DestBlend</code>,
	428	* where <code>DestColor</code> is the previous color in the framebuffer at
	429	* this position and <code>SourceColor</code> is the material color before
	430	* the transparency calculation.
	431	*
	432	* This corresponds to the <code>AI_MATKEY_BLEND_FUNC</code> property.
	433	*/
	434	enum aiBlendMode :uint {
	435	/**
	436	* Formula:
	437	* <code>SourceColor * SourceAlpha + DestColor * (1 - SourceAlpha)</code>
	438	*/
	439	Default = 0x0,
	440
	441	/**
	442	* Additive blending.
	443	*
	444	* Formula: <code>SourceColor1 + DestColor1</code>
	445	*/
	446	Additive = 0x1
	447	}
	448
	449	/**
	450	* Defines how an UV channel is transformed.
	451	*
	452	* This is just a helper structure for the <code>AI_MATKEY_UVTRANSFORM</code>
	453	* key. See its documentation for more details.
	454	*/
	455	struct aiUVTransform {
	456	align ( 1 ) :
	457	/**
	458	* Translation on the u and v axes.
	459	*
	460	* The default value is (0\|0).
	461	*/
	462	aiVector2D mTranslation;
	463
	464	/**
	465	* Scaling on the u and v axes.
	466	*
	467	* The default value is (1\|1).
	468	*/
	469	aiVector2D mScaling;
	470
	471	/**
	472	* Rotation - in counter-clockwise direction.
	473	*
	474	* The rotation angle is specified in radians. The rotation center is
	475	* 0.5\|0.5. The default value is 0.
	476	*/
	477	float mRotation;
	478	}
	479
	480	/**
	481	* A very primitive RTTI system to store the data type of a material
	482	* property.
	483	*/
	484	enum aiPropertyTypeInfo : uint {
	485	/**
	486	* Array of single-precision (32 bit) floats.
	487	*
	488	* It is possible to use <code>aiGetMaterialInteger[Array]()</code> to
	489	* query properties stored in floating-point format. The material system
	490	* performs the type conversion automatically.
	491	*/
	492	Float = 0x1,
	493
	494	/**
	495	* aiString property.
	496	*
	497	* Arrays of strings aren't possible, <code>aiGetMaterialString()</code>
	498	* must be used to query a string property.
	499	*/
	500	String = 0x3,
	501
	502	/**
	503	* Array of (32 bit) integers.
	504	*
	505	* It is possible to use <code>aiGetMaterialFloat[Array]()</code> to
	506	* query properties stored in integer format. The material system
	507	* performs the type conversion automatically.
	508	*/
	509	Integer = 0x4,
	510
	511	/**
	512	* Simple binary buffer, content undefined. Not convertible to anything.
	513	*/
	514	Buffer = 0x5
	515	}
	516
	517	/**
	518	* Data structure for a single material property.
	519	*
	520	* As an user, you'll probably never need to deal with this data structure.
	521	* Just use the provided <code>aiGetMaterialXXX()</code> functions to query
	522	* material properties easily. Processing them manually is faster, but it is
	523	* not the recommended way. It isn't worth the effort.
	524	*
	525	* Material property names follow a simple scheme:
	526	*
	527	* <code>$[name]</code>: A public property, there must be a corresponding
	528	* AI_MATKEY_XXX constant.
	529	*
	530	* <code>?[name]</code>: Also public, but ignored by the
	531	* <code>aiProcess.RemoveRedundantMaterials</code> post-processing step.
	532	*
	533	* <code>~[name]</code>: A temporary property for internal use.
	534	*/
	535	struct aiMaterialProperty {
	536	/**
	537	* Specifies the name of the property (key).
	538	*
	539	* Keys are generally case insensitive.
	540	*/
	541	aiString mKey;
	542
	543	/**
	544	* For texture properties, this specifies the exact usage semantic.
	545	*
	546	* For non-texture properties, this member is always 0 (or rather
	547	* <code>aiTextureType.NONE</code>).
	548	*/
	549	uint mSemantic;
	550
	551	/**
	552	* For texture properties, this specifies the index of the texture.
	553	*
	554	* For non-texture properties, this member is always 0.
	555	*/
	556	uint mIndex;
	557
	558	/**
	559	* Size of the buffer <code>mData</code> is pointing to (in bytes).
	560	*
	561	* This value may not be 0.
	562	*/
	563	uint mDataLength;
	564
	565	/**
	566	* Type information for the property.
	567	*
	568	* Defines the data layout inside the data buffer. This is used by the
	569	* library internally to perform debug checks and to utilize proper type
	570	* conversions.
	571	*/
	572	aiPropertyTypeInfo mType;
	573
	574	/**
	575	* Binary buffer to hold the property's value.
	576	*
	577	* The size of the buffer is always <code>mDataLength</code>.
	578	*/
	579	char* mData;
	580	}
	581
	582	/**
	583	* Data structure for a material
	584	*
	585	* Material data is stored using a key-value structure. A single key-value
	586	* pair is called a <em>material property</em>. The properties can be
	587	* queried using the <code>aiMaterialGetXXX</code> family of functions. The
	588	* library defines a set of standard keys (AI_MATKEY_XXX).
	589	*/
	590	struct aiMaterial {
	591	/**
	592	* List of all material properties loaded.
	593	*/
	594	aiMaterialProperty** mProperties;
	595
	596	/**
	597	* Number of properties loaded.
	598	*/
	599	uint mNumProperties;
	600	uint mNumAllocated; /// ditto
	601	}
	602
	603	/**
	604	* Standard material property keys. Always pass 0 for texture type and index
	605	* when querying these keys.
	606	*/
	607	const char* AI_MATKEY_NAME = "?mat.name";
	608	const char* AI_MATKEY_TWOSIDED = "$mat.twosided"; /// ditto
	609	const char* AI_MATKEY_SHADING_MODEL = "$mat.shadingm"; /// ditto
	610	const char* AI_MATKEY_ENABLE_WIREFRAME = "$mat.wireframe"; /// ditto
	611	const char* AI_MATKEY_BLEND_FUNC = "$mat.blend"; /// ditto
	612	const char* AI_MATKEY_OPACITY = "$mat.opacity"; /// ditto
	613	const char* AI_MATKEY_BUMPSCALING = "$mat.bumpscaling"; /// ditto
	614	const char* AI_MATKEY_SHININESS = "$mat.shininess"; /// ditto
	615	const char* AI_MATKEY_REFLECTIVITY = "$mat.reflectivity"; /// ditto
	616	const char* AI_MATKEY_SHININESS_STRENGTH = "$mat.shinpercent"; /// ditto
	617	const char* AI_MATKEY_REFRACTI = "$mat.refracti"; /// ditto
	618	const char* AI_MATKEY_COLOR_DIFFUSE = "$clr.diffuse"; /// ditto
	619	const char* AI_MATKEY_COLOR_AMBIENT = "$clr.ambient"; /// ditto
	620	const char* AI_MATKEY_COLOR_SPECULAR = "$clr.specular"; /// ditto
	621	const char* AI_MATKEY_COLOR_EMISSIVE = "$clr.emissive"; /// ditto
	622	const char* AI_MATKEY_COLOR_TRANSPARENT = "$clr.transparent"; /// ditto
	623	const char* AI_MATKEY_COLOR_REFLECTIVE = "$clr.reflective"; /// ditto
	624	const char* AI_MATKEY_GLOBAL_BACKGROUND_IMAGE = "?bg.global"; /// ditto
	625
	626	/**
	627	* Texture material property keys. Do not forget to specify texture type and
	628	* index for these keys.
	629	*/
	630	const char* AI_MATKEY_TEXTURE = "$tex.file";
	631	const char* AI_MATKEY_UVWSRC = "$tex.uvwsrc"; /// ditto
	632	const char* AI_MATKEY_TEXOP = "$tex.op"; /// ditto
	633	const char* AI_MATKEY_MAPPING = "$tex.mapping"; /// ditto
	634	const char* AI_MATKEY_TEXBLEND = "$tex.blend"; /// ditto
	635	const char* AI_MATKEY_MAPPINGMODE_U = "$tex.mapmodeu"; /// ditto
	636	const char* AI_MATKEY_MAPPINGMODE_V = "$tex.mapmodev"; /// ditto
	637	const char* AI_MATKEY_TEXMAP_AXIS = "$tex.mapaxis"; /// ditto
	638	const char* AI_MATKEY_UVTRANSFORM = "$tex.uvtrafo"; /// ditto
	639	const char* AI_MATKEY_TEXFLAGS = "$tex.flags"; /// ditto
	640	}

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port/dAssimp/assimp/math.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Mathematical structures in which the imported data is stored.
	43	*/
	44	module assimp.math;
	45
	46	extern( C ) {
	47	/**
	48	* Represents a two-dimensional vector.
	49	*/
	50	struct aiVector2D {
	51	align ( 1 ):
	52	float x, y;
	53	}
	54
	55	/**
	56	* Represents a three-dimensional vector.
	57	*/
	58	struct aiVector3D {
	59	align ( 1 ):
	60	float x, y, z;
	61	}
	62
	63	/**
	64	* Represents a quaternion.
	65	*/
	66	struct aiQuaternion {
	67	float w, x, y, z;
	68	}
	69
	70	/**
	71	* Represents a row-major 3x3 matrix
	72	*
	73	* There is much confusion about matrix layouts (colum vs. row order). This
	74	* is <em>always</em> a row-major matrix, even when using the
	75	* <code>ConvertToLeftHanded</code> post processing step.
	76	*/
	77	struct aiMatrix3x3 {
	78	float a1, a2, a3;
	79	float b1, b2, b3;
	80	float c1, c2, c3;
	81	}
	82
	83	/**
	84	* Represents a row-major 3x3 matrix
	85	*
	86	* There is much confusion about matrix layouts (colum vs. row order). This
	87	* is <em>always</em> a row-major matrix, even when using the
	88	* <code>ConvertToLeftHanded</code> post processing step.
	89	*/
	90	struct aiMatrix4x4 {
	91	align ( 1 ):
	92	float a1, a2, a3, a4;
	93	float b1, b2, b3, b4;
	94	float c1, c2, c3, c4;
	95	float d1, d2, d3, d4;
	96	}
	97
	98	/**
	99	* Represents a plane in a three-dimensional, euclidean space
	100	*/
	101	struct aiPlane {
	102	align ( 1 ):
	103	/**
	104	* Coefficients of the plane equation (<code>ax + by + cz = d</code>).
	105	*/
	106	float a;
	107	float b; /// ditto
	108	float c; /// ditto
	109	float d; /// ditto
	110	}
	111
	112	/**
	113	* Represents a ray.
	114	*/
	115	struct aiRay {
	116	align ( 1 ):
	117	/**
	118	* Origin of the ray.
	119	*/
	120	aiVector3D pos;
	121
	122	/**
	123	* Direction of the ray.
	124	*/
	125	aiVector3D dir;
	126	}
	127
	128	/**
	129	* Represents a color in RGB space.
	130	*/
	131	struct aiColor3D {
	132	align ( 1 ):
	133	/**
	134	* Red, green and blue values.
	135	*/
	136	float r;
	137	float g; /// ditto
	138	float b; /// ditto
	139	}
	140
	141	/**
	142	* Represents a color in RGB space including an alpha component.
	143	*/
	144	struct aiColor4D {
	145	align ( 1 ):
	146	/**
	147	* Red, green, blue and alpha values.
	148	*/
	149	float r;
	150	float g; /// ditto
	151	float b; /// ditto
	152	float a; /// ditto
	153	}
	154	}

+465

-0

port/dAssimp/assimp/mesh.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Contains the data structures in which the imported geometry is returned by
	43	* Assimp.
	44	*/
	45	module assimp.mesh;
	46
	47	import assimp.math;
	48	import assimp.types;
	49
	50	extern ( C ) {
	51	/*
	52	* These limits are required to match the settings Assimp was compiled
	53	* against. Therfore, do not redefine them unless you build the library
	54	* from source using the same definitions.
	55	*/
	56
	57	/**
	58	* Maximum number of indices per face (polygon).
	59	*/
	60	const AI_MAX_FACE_INDICES = 0x7fff;
	61
	62	/**
	63	* Maximum number of indices per face (polygon).
	64	*/
	65	const AI_MAX_BONE_WEIGHTS = 0x7fffffff;
	66
	67	/**
	68	* Maximum number of vertices per mesh.
	69	*/
	70	const AI_MAX_VERTICES = 0x7fffffff;
	71
	72	/**
	73	* Maximum number of faces per mesh.
	74	*/
	75	const AI_MAX_FACES = 0x7fffffff;
	76
	77	/**
	78	* Supported number of vertex color sets per mesh.
	79	*/
	80	const AI_MAX_NUMBER_OF_COLOR_SETS = 0x4;
	81
	82	/**
	83	* Supported number of texture coord sets (UV(W) channels) per mesh.
	84	*/
	85	const AI_MAX_NUMBER_OF_TEXTURECOORDS = 0x4;
	86
	87
	88	/**
	89	* A single face in a mesh, referring to multiple vertices.
	90	*
	91	* If <code>mNumIndices</code> is 3, we call the face <em>triangle</em>, for
	92	* for <code>mNumIndices > 3</code> it's called <em>polygon</em>.
	93	*
	94	* <code>aiMesh.mPrimitiveTypes</code> can be queried to quickly examine
	95	* which types of primitive are actually present in a mesh. The
	96	* <code>aiProcess.SortByPType</code> flag post-processing step splits
	97	* meshes containing different primitive types (e.g. lines and triangles) in
	98	* several "clean" submeshes.
	99	*
	100	* Furthermore, there is a configuration option
	101	* (<code>AI_CONFIG_PP_SBP_REMOVE</code>) to force <code>SortByPType</code>
	102	* to completely remove specific kinds of primitives from the imported scene.
	103	* In many cases you'll probably want to set this setting to
	104	* <code>aiPrimitiveType.LINE \| aiPrimitiveType.POINT</code>. Together with
	105	* the <code>aiProcess.Triangulate</code> flag you can then be sure that
	106	* <code>mNumIndices</code> is always 3.
	107	*/
	108	struct aiFace {
	109	/**
	110	* Number of indices defining this face.
	111	*
	112	* The maximum value for this member is <code>AI_MAX_FACE_INDICES</code>.
	113	*/
	114	uint mNumIndices;
	115
	116	/**
	117	* Array of the indicies defining the face.
	118	*
	119	* The size is given in <code>mNumIndices</code>.
	120	*/
	121	uint* mIndices;
	122	}
	123
	124	/**
	125	* A single influence of a bone on a vertex.
	126	*/
	127	struct aiVertexWeight {
	128	/**
	129	* Index of the vertex which is influenced by the bone.
	130	*/
	131	uint mVertexId;
	132
	133	/**
	134	* The strength of the influence in the range <code>[0..1]</code>.
	135	*
	136	* The influence from all bones at one vertex sums up to 1.
	137	*/
	138	float mWeight;
	139	}
	140
	141	/**
	142	* A single bone of a mesh.
	143	*
	144	* A bone has a name by which it can be found in the frame hierarchy and by
	145	* which it can be addressed by animations. In addition it has a number of
	146	* influences on vertices.
	147	*/
	148	struct aiBone {
	149	/**
	150	* The name of the bone.
	151	*/
	152	aiString mName;
	153
	154	/**
	155	* The number of vertices affected by this bone.
	156	*
	157	* The maximum value for this member is <code>AI_MAX_BONE_WEIGHTS</code>.
	158	*/
	159	uint mNumWeights;
	160
	161	/**
	162	* The vertices affected by this bone.
	163	*
	164	* This array is <code>mNumWeights</code> entries in size.
	165	*/
	166	aiVertexWeight* mWeights;
	167
	168	/**
	169	* Matrix that transforms from mesh space to bone space (in the bind
	170	* pose).
	171	*/
	172	aiMatrix4x4 mOffsetMatrix;
	173	}
	174
	175	/**
	176	* Enumerates the types of geometric primitives supported by Assimp.
	177	*
	178	* See: <code>aiFace</code>, <code>aiProcess.SortByPType</code>,
	179	* <code>aiProcess.Triangulate</code>,
	180	* <code>AI_CONFIG_PP_SBP_REMOVE</code>.
	181	*/
	182	enum aiPrimitiveType : uint {
	183	/** A point primitive.
	184	*
	185	* This is just a single vertex in the virtual world,
	186	* <code>aiFace</code> contains just one index for such a primitive.
	187	*/
	188	POINT = 0x1,
	189
	190	/** A line primitive.
	191	*
	192	* This is a line defined through a start and an end position.
	193	* <code>aiFace</code> contains exactly two indices for such a primitive.
	194	*/
	195	LINE = 0x2,
	196
	197	/** A triangular primitive.
	198	*
	199	* A triangle consists of three indices.
	200	*/
	201	TRIANGLE = 0x4,
	202
	203	/** A higher-level polygon with more than 3 edges.
	204	*
	205	* A triangle is a polygon, but in this context, polygon means
	206	* "all polygons that are not triangles". The <code>Triangulate</code>
	207	* post processing step is provided for your convinience, it splits all
	208	* polygons in triangles (which are much easier to handle).
	209	*/
	210	POLYGON = 0x8
	211	}
	212
	213	// Note: The AI_PRIMITIVE_TYPE_FOR_N_INDICES(n) macro from the C headers is
	214	// missing since there is probably not much use for it when just reading
	215	// scene files.
	216
	217	/**
	218	* NOT CURRENTLY IN USE. An AnimMesh is an attachment to an #aiMesh stores
	219	* per-vertex animations for a particular frame.
	220	*
	221	* You may think of an <code>aiAnimMesh</code> as a `patch` for the host
	222	* mesh, which replaces only certain vertex data streams at a particular
	223	* time.
	224	*
	225	* Each mesh stores n attached attached meshes (<code>aiMesh.mAnimMeshes</code>).
	226	* The actual relationship between the time line and anim meshes is
	227	* established by #aiMeshAnim, which references singular mesh attachments
	228	* by their ID and binds them to a time offset.
	229	*/
	230	struct aiAnimMesh {
	231	/**
	232	* Replacement for aiMesh.mVertices.
	233	*
	234	* If this array is non-null, it must contain mNumVertices entries.
	235	* The corresponding array in the host mesh must be non-null as well -
	236	* animation meshes may neither add or nor remove vertex components (if
	237	* a replacement array is NULL and the corresponding source array is
	238	* not, the source data is taken instead).
	239	*/
	240	aiVector3D* mVertices;
	241
	242	/// Replacement for <code>aiMesh.mNormals</code>.
	243	aiVector3D* mNormals;
	244
	245	/// Replacement for <code>aiMesh.mTangents</code>.
	246	aiVector3D* mTangents;
	247
	248	/// Replacement for <code>aiMesh.mBitangents</code>.
	249	aiVector3D* mBitangents;
	250
	251	/// Replacement for <code>aiMesh.mColors</code>.
	252	aiColor4D* mColors[ AI_MAX_NUMBER_OF_COLOR_SETS ];
	253
	254	/// Replacement for <code>aiMesh.mTextureCoords</code>.
	255	aiVector3D* mTextureCoords[ AI_MAX_NUMBER_OF_TEXTURECOORDS ];
	256
	257	/**
	258	* The number of vertices in the aiAnimMesh, and thus the length of all
	259	* the member arrays.
	260	*
	261	* This has always the same value as the mNumVertices property in the
	262	* corresponding aiMesh. It is duplicated here merely to make the length
	263	* of the member arrays accessible even if the aiMesh is not known, e.g.
	264	* from language bindings.
	265	*/
	266	uint mNumVertices;
	267	}
	268
	269	/**
	270	* A mesh represents a geometry or model with a single material.
	271	*
	272	* It usually consists of a number of vertices and a series
	273	* primitives/faces referencing the vertices. In addition there might be a
	274	* series of bones, each of them addressing a number of vertices with a
	275	* certain weight. Vertex data is presented in channels with each channel
	276	* containing a single per-vertex information such as a set of texture
	277	* coords or a normal vector. If a data pointer is non-null, the
	278	* corresponding data stream is present.
	279	*
	280	* A mesh uses only a single material which is referenced by a material ID.
	281	*
	282	* Note: The <code>mPositions</code> member is usually not optional.
	283	* However, vertex positions <em>could</em> be missing if the
	284	* <code>AI_SCENE_FLAGS_INCOMPLETE</code> flag is set in
	285	* <code>aiScene.mFlags</code>.
	286	*/
	287	struct aiMesh {
	288	/**
	289	* Bitwise combination of <code>aiPrimitiveType</code> members.
	290	*
	291	* This specifies which types of primitives are present in the mesh.
	292	* The <code>SortByPrimitiveType</code> post processing step can be used
	293	* to make sure the output meshes consist of one primitive type each.
	294	*/
	295	uint mPrimitiveTypes;
	296
	297	/**
	298	* The number of vertices in this mesh.
	299	*
	300	* This is also the size of all of the per-vertex data arrays. The
	301	* maximum value for this member is <code>AI_MAX_VERTICES</code>.
	302	*/
	303	uint mNumVertices;
	304
	305	/**
	306	* The number of primitives (triangles, polygons, lines) in this mesh.
	307	*
	308	* This is also the size of the <code>mFaces</code> array. The maximum
	309	* value for this member is <code>AI_MAX_FACES</code>.
	310	*/
	311	uint mNumFaces;
	312
	313	/**
	314	* Vertex positions.
	315	*
	316	* This array is always present in a mesh. The array is
	317	* <code>mNumVertices</code> in size.
	318	*/
	319	aiVector3D* mVertices;
	320
	321	/**
	322	* Vertex normals.
	323	*
	324	* The array contains normalized vectors, null if not present.
	325	* The array is <code>mNumVertices</code> in size.
	326	*
	327	* Normals are undefined for point and line primitives. A mesh
	328	* consisting of points and lines only may not have normal vectors.
	329	* Meshes with mixed primitive types (i.e. lines and triangles) may have
	330	* normals, but the normals for vertices that are only referenced by
	331	* point or line primitives are undefined and set to <code>QNAN</code>.
	332	*
	333	* Note: Normal vectors computed by Assimp are always unit-length.
	334	* However, this needn't apply for normals that have been taken
	335	* directly from the model file.
	336	*/
	337	aiVector3D* mNormals;
	338
	339	/**
	340	* Vertex tangents.
	341	*
	342	* The tangent of a vertex points in the direction of the positive x
	343	* texture axis. The array contains normalized vectors, null if
	344	* not present. The array is <code>mNumVertices</code> in size.
	345	*
	346	* A mesh consisting of points and lines only may not have normal
	347	* vectors. Meshes with mixed primitive types (i.e. lines and triangles)
	348	* may have normals, but the normals for vertices that are only
	349	* referenced by point or line primitives are undefined and set to
	350	* <code>QNAN</code>.
	351	*
	352	* Note: If the mesh contains tangents, it automatically also contains
	353	* bitangents (the bitangent is just the cross product of tangent and
	354	* normal vectors).
	355	*/
	356	aiVector3D* mTangents;
	357
	358	/**
	359	* Vertex bitangents.
	360	*
	361	* The bitangent of a vertex points in the direction of the positive Y
	362	* texture axis. The array contains normalized vectors, null if not
	363	* present. The array is <code>mNumVertices</code> in size.
	364	*
	365	* Note: If the mesh contains tangents, it automatically also contains
	366	* bitangents.
	367	*/
	368	aiVector3D* mBitangents;
	369
	370	/**
	371	* Vertex color sets.
	372	*
	373	* A mesh may contain 0 to <code>AI_MAX_NUMBER_OF_COLOR_SETS</code>
	374	* vertex colors per vertex. null if not present.
	375	*
	376	* Each array is <code>mNumVertices</code> in size if present.
	377	*/
	378	aiColor4D* mColors[ AI_MAX_NUMBER_OF_COLOR_SETS ];
	379
	380	/**
	381	* Vertex texture coords, also known as UV channels.
	382	* A mesh may contain 0 to <code>AI_MAX_NUMBER_OF_TEXTURECOORDS</code>
	383	* per vertex. null if not present.
	384	*
	385	* Each array is <code>mNumVertices</code> in size.
	386	*/
	387	aiVector3D* mTextureCoords[ AI_MAX_NUMBER_OF_TEXTURECOORDS ];
	388
	389	/**
	390	* Specifies the number of components for a given UV channel.
	391	*
	392	* Up to three channels are supported (UVW, for accessing volume or cube
	393	* maps). If the value is 2 for a given channel <code>n</code>, the
	394	* component <code>p.z</code> of <code>mTextureCoords[n][p]</code> is set
	395	* to 0. If the value is 1 for a given channel, <code>p.y</code> is set
	396	* to 0, too. If this value is 0, 2 should be assumed.
	397	*
	398	* Note: 4D coords are not supported.
	399	*/
	400	uint mNumUVComponents[ AI_MAX_NUMBER_OF_TEXTURECOORDS ];
	401
	402	/**
	403	* The faces the mesh is contstructed from.
	404	*
	405	* Each face referrs to a number of vertices by their indices.
	406	* This array is always present in a mesh, its size is given
	407	* in <code>mNumFaces</code>. If the
	408	* <code>AI_SCENE_FLAGS_NON_VERBOSE_FORMAT</code> is <em>not</em> set,
	409	* each face references an unique set of vertices.
	410	*/
	411	aiFace* mFaces;
	412
	413	/**
	414	* The number of bones this mesh contains.
	415	*
	416	* Can be 0, in which case the <code>mBones</code> array is null.
	417	*/
	418	uint mNumBones;
	419
	420	/**
	421	* The bones of this mesh.
	422	*
	423	* A bone consists of a name by which it can be found in the frame
	424	* hierarchy and a set of vertex weights.
	425	*/
	426	aiBone** mBones;
	427
	428	/**
	429	* The material used by this mesh.
	430	*
	431	* A mesh does use only a single material. If an imported model uses
	432	* multiple materials, the import splits up the mesh. Use this value as
	433	* index into the scene's material list.
	434	*/
	435	uint mMaterialIndex;
	436
	437	/**
	438	* Name of the mesh.
	439	*
	440	* Meshes can be named, but this is not a requirement and leaving this
	441	* field empty is totally fine.
	442	*
	443	* There are mainly three uses for mesh names:
	444	* - Some formats name nodes and meshes independently.
	445	* - Importers tend to split meshes up to meet the one-material-per-mesh
	446	* requirement. Assigning the same (dummy) name to each of the result
	447	* meshes aids the caller at recovering the original mesh partitioning.
	448	* - Vertex animations refer to meshes by their names.
	449	*/
	450	aiString mName;
	451
	452	/// NOT CURRENTLY IN USE. The number of attachment meshes.
	453	uint mNumAnimMeshes;
	454
	455	/**
	456	* NOT CURRENTLY IN USE. Attachment meshes for this mesh, for vertex-
	457	* based animation.
	458	*
	459	* Attachment meshes carry replacement data for some of the mesh's
	460	* vertex components (usually positions, normals).
	461	*/
	462	aiAnimMesh** mAnimMeshes;
	463	}
	464	}

+597

-0

port/dAssimp/assimp/postprocess.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Definitions for import post processing steps.
	43	*/
	44	module assimp.postprocess;
	45
	46	extern ( C ) {
	47	/**
	48	* Defines the flags for all possible post processing steps.
	49	*
	50	* See: <code>aiImportFile</code>, <code>aiImportFileEx</code>
	51	*/
	52	enum aiPostProcessSteps {
	53	/**
	54	* Calculates the tangents and bitangents for the imported meshes.
	55	*
	56	* Does nothing if a mesh does not have normals. You might want this post
	57	* processing step to be executed if you plan to use tangent space
	58	* calculations such as normal mapping applied to the meshes. There is a
	59	* config setting, <code>AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE</code>,
	60	* which allows you to specify a maximum smoothing angle for the
	61	* algorithm. However, usually you will want to use the default value.
	62	*/
	63	CalcTangentSpace = 0x1,
	64
	65	/**
	66	* Identifies and joins identical vertex data sets within all imported
	67	* meshes.
	68	*
	69	* After this step is run each mesh does contain only unique vertices
	70	* anymore, so a vertex is possibly used by multiple faces. You usually
	71	* want to use this post processing step. If your application deals with
	72	* indexed geometry, this step is compulsory or you will just waste
	73	* rendering time. <em>If this flag is not specified</em>, no vertices
	74	* are referenced by more than one face and <em>no index buffer is
	75	* required</em> for rendering.
	76	*/
	77	JoinIdenticalVertices = 0x2,
	78
	79	/**
	80	* Converts all the imported data to a left-handed coordinate space.
	81	*
	82	* By default the data is returned in a right-handed coordinate space
	83	* which for example OpenGL prefers. In this space, +X points to the
	84	* right, +Z points towards the viewer and and +Y points upwards. In the
	85	* DirectX coordinate space +X points to the right, +Y points upwards and
	86	* +Z points away from the viewer.
	87	*
	88	* You will probably want to consider this flag if you use Direct3D for
	89	* rendering. The <code>ConvertToLeftHanded</code> flag supersedes this
	90	* setting and bundles all conversions typically required for D3D-based
	91	* applications.
	92	*/
	93	MakeLeftHanded = 0x4,
	94
	95	/**
	96	* Triangulates all faces of all meshes.
	97	*
	98	* By default the imported mesh data might contain faces with more than 3
	99	* indices. For rendering you'll usually want all faces to be triangles.
	100	* This post processing step splits up all higher faces to triangles.
	101	* Line and point primitives are <em>not</em> modified!.
	102	*
	103	* If you want »triangles only« with no other kinds of primitives,
	104	* specify both <code>Triangulate</code> and <code>SortByPType</code> and
	105	* ignore all point and line meshes when you process Assimp's output.
	106	*/
	107	Triangulate = 0x8,
	108
	109	/**
	110	* Removes some parts of the data structure (animations, materials, light
	111	* sources, cameras, textures, vertex components).
	112	*
	113	* The components to be removed are specified in a separate configuration
	114	* option, <code>AI_CONFIG_PP_RVC_FLAGS</code>. This is quite useful if
	115	* you don't need all parts of the output structure. Especially vertex
	116	* colors are rarely used today.
	117	*
	118	* Calling this step to remove unrequired stuff from the pipeline as
	119	* early as possible results in an increased performance and a better
	120	* optimized output data structure.
	121	*
	122	* This step is also useful if you want to force Assimp to recompute
	123	* normals or tangents since the corresponding steps don't recompute them
	124	* if they have already been loaded from the source asset.
	125	*
	126	* This flag is a poor one, mainly because its purpose is usually
	127	* misunderstood. Consider the following case: a 3d model has been exported
	128	* from a CAD app, it has per-face vertex colors. Because of the vertex
	129	* colors (which are not even used by most apps),
	130	* <code>JoinIdenticalVertices</code> cannot join vertices at the same
	131	* position. By using this step, unneeded components are excluded as
	132	* early as possible thus opening more room for internal optimzations.
	133	*/
	134	RemoveComponent = 0x10,
	135
	136	/**
	137	* Generates normals for all faces of all meshes.
	138	*
	139	* This is ignored if normals are already there at the time where this
	140	* flag is evaluated. Model importers try to load them from the source
	141	* file, so they are usually already there. Face normals are shared
	142	* between all points of a single face, so a single point can have
	143	* multiple normals, which, in other words, enforces the library to
	144	* duplicate vertices in some cases. <code>JoinIdenticalVertices</code>
	145	* is <em>useless</em> then.
	146	*
	147	* This flag may not be specified together with
	148	* <code>GenSmoothNormals</code>.
	149	*/
	150	GenNormals = 0x20,
	151
	152	/**
	153	* Generates smooth normals for all vertices in the mesh.
	154	*
	155	* This is ignored if normals are already there at the time where this
	156	* flag is evaluated. Model importers try to load them from the source file, so
	157	* they are usually already there.
	158	*
	159	* There is a configuration option,
	160	* <code>AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE</code> which allows you to
	161	* specify an angle maximum for the normal smoothing algorithm. Normals
	162	* exceeding this limit are not smoothed, resulting in a »hard« seam
	163	* between two faces. Using a decent angle here (e.g. 80°) results in
	164	* very good visual appearance.
	165	*/
	166	GenSmoothNormals = 0x40,
	167
	168	/**
	169	* Splits large meshes into smaller submeshes.
	170	*
	171	* This is quite useful for realtime rendering where the number of triangles
	172	* which can be maximally processed in a single draw-call is usually limited
	173	* by the video driver/hardware. The maximum vertex buffer is usually limited,
	174	* too. Both requirements can be met with this step: you may specify both a
	175	* triangle and vertex limit for a single mesh.
	176	*
	177	* The split limits can (and should!) be set through the
	178	* <code>AI_CONFIG_PP_SLM_VERTEX_LIMIT</code> and
	179	* <code>AI_CONFIG_PP_SLM_TRIANGLE_LIMIT</code> settings. The default
	180	* values are <code>AI_SLM_DEFAULT_MAX_VERTICES</code> and
	181	* <code>AI_SLM_DEFAULT_MAX_TRIANGLES</code>.
	182	*
	183	* Note that splitting is generally a time-consuming task, but not if
	184	* there's nothing to split. The use of this step is recommended for most
	185	* users.
	186	*/
	187	SplitLargeMeshes = 0x80,
	188
	189	/**
	190	* Removes the node graph and pre-transforms all vertices with the local
	191	* transformation matrices of their nodes.
	192	*
	193	* The output scene does still contain nodes, however, there is only a
	194	* root node with children, each one referencing only one mesh, each
	195	* mesh referencing one material. For rendering, you can simply render
	196	* all meshes in order, you don't need to pay attention to local
	197	* transformations and the node hierarchy. Animations are removed during
	198	* this step.
	199	*
	200	* This step is intended for applications that have no scenegraph.
	201	*
	202	* The step <em>can</em> cause some problems: if e.g. a mesh of the asset
	203	* contains normals and another, using the same material index, does not,
	204	* they will be brought together, but the first meshes's part of the
	205	* normal list is zeroed. However, these artifacts are rare.
	206	*
	207	* Note: The <code>AI_CONFIG_PP_PTV_NORMALIZE</code> configuration
	208	* property can be set to normalize the scene's spatial dimension
	209	* to the -1...1 range.
	210	*/
	211	PreTransformVertices = 0x100,
	212
	213	/**
	214	* Limits the number of bones simultaneously affecting a single vertex to
	215	* a maximum value.
	216	*
	217	* If any vertex is affected by more than that number of bones, the least
	218	* important vertex weights are removed and the remaining vertex weights
	219	* are renormalized so that the weights still sum up to 1.
	220	*
	221	* The default bone weight limit is 4 (<code>AI_LMW_MAX_WEIGHTS</code>),
	222	* but you can use the <code>#AI_CONFIG_PP_LBW_MAX_WEIGHTS</code> setting
	223	* to supply your own limit to the post processing step.
	224	*
	225	* If you intend to perform the skinning in hardware, this post processing
	226	* step might be of interest for you.
	227	*/
	228	LimitBoneWeights = 0x200,
	229
	230	/**
	231	* Validates the imported scene data structure.
	232	*
	233	* This makes sure that all indices are valid, all animations and
	234	* bones are linked correctly, all material references are correct, etc.
	235	*
	236	* It is recommended to capture Assimp's log output if you use this flag,
	237	* so you can easily find ot what's actually wrong if a file fails the
	238	* validation. The validator is quite rude and will find <em>all</em>
	239	* inconsistencies in the data structure.
	240	*
	241	* Plugin developers are recommended to use it to debug their loaders.
	242	*
	243	* There are two types of validation failures:
	244	* <ul>
	245	* <li>Error: There's something wrong with the imported data. Further
	246	* postprocessing is not possible and the data is not usable at all.
	247	* The import fails, see <code>aiGetErrorString()</code> for the
	248	* error message.</li>
	249	* <li>Warning: There are some minor issues (e.g. 1000000 animation
	250	* keyframes with the same time), but further postprocessing and use
	251	* of the data structure is still safe. Warning details are written
	252	* to the log file, <code>AI_SCENE_FLAGS_VALIDATION_WARNING</code> is
	253	* set in <code>aiScene::mFlags</code></li>
	254	* </ul>
	255	*
	256	* This post-processing step is not time-consuming. It's use is not
	257	* compulsory, but recommended.
	258	*/
	259	ValidateDataStructure = 0x400,
	260
	261	/**
	262	* Reorders triangles for better vertex cache locality.
	263	*
	264	* The step tries to improve the ACMR (average post-transform vertex cache
	265	* miss ratio) for all meshes. The implementation runs in O(n) and is
	266	* roughly based on the 'tipsify' algorithm (see
	267	* <tt>http://www.cs.princeton.edu/gfx/pubs/Sander_2007_%3ETR/tipsy.pdf</tt>).
	268	*
	269	* If you intend to render huge models in hardware, this step might
	270	* be of interest for you. The <code>AI_CONFIG_PP_ICL_PTCACHE_SIZE</code>
	271	* config setting can be used to fine-tune the cache optimization.
	272	*/
	273	ImproveCacheLocality = 0x800,
	274
	275	/**
	276	* Searches for redundant/unreferenced materials and removes them.
	277	*
	278	* This is especially useful in combination with the
	279	* <code>PretransformVertices</code> and <code>OptimizeMeshes</code>
	280	* flags. Both join small meshes with equal characteristics, but they
	281	* can't do their work if two meshes have different materials. Because
	282	* several material settings are always lost during Assimp's import
	283	* filters, (and because many exporters don't check for redundant
	284	* materials), huge models often have materials which are are defined
	285	* several times with exactly the same settings.
	286	*
	287	* Several material settings not contributing to the final appearance of
	288	* a surface are ignored in all comparisons; the material name is one of
	289	* them. So, if you are passing additional information through the
	290	* content pipeline (probably using »magic« material names), don't
	291	* specify this flag. Alternatively take a look at the
	292	* <code>AI_CONFIG_PP_RRM_EXCLUDE_LIST</code> setting.
	293	*/
	294	RemoveRedundantMaterials = 0x1000,
	295
	296	/**
	297	* This step tries to determine which meshes have normal vectors that are
	298	* acing inwards.
	299	*
	300	* The algorithm is simple but effective: The bounding box of all
	301	* vertices and their normals is compared against the volume of the
	302	* bounding box of all vertices without their normals. This works well
	303	* for most objects, problems might occur with planar surfaces. However,
	304	* the step tries to filter such cases.
	305	*
	306	* The step inverts all in-facing normals. Generally it is recommended to
	307	* enable this step, although the result is not always correct.
	308	*/
	309	FixInfacingNormals = 0x2000,
	310
	311	/**
	312	* This step splits meshes with more than one primitive type in
	313	* homogeneous submeshes.
	314	*
	315	* The step is executed after the triangulation step. After the step
	316	* returns, just one bit is set in <code>aiMesh.mPrimitiveTypes</code>.
	317	* This is especially useful for real-time rendering where point and line
	318	* primitives are often ignored or rendered separately.
	319	*
	320	* You can use the <code>AI_CONFIG_PP_SBP_REMOVE</code> option to
	321	* specify which primitive types you need. This can be used to easily
	322	* exclude lines and points, which are rarely used, from the import.
	323	*/
	324	SortByPType = 0x8000,
	325
	326	/**
	327	* This step searches all meshes for degenerated primitives and converts
	328	* them to proper lines or points.
	329	*
	330	* A face is »degenerated« if one or more of its points are identical.
	331	* To have the degenerated stuff not only detected and collapsed but also
	332	* removed, try one of the following procedures:
	333	*
	334	* <b>1.</b> (if you support lines and points for rendering but don't
	335	* want the degenerates)
	336	* <ul>
	337	* <li>Specify the <code>FindDegenerates</code> flag.</li>
	338	* <li>Set the <code>AI_CONFIG_PP_FD_REMOVE</code> option to 1. This will
	339	* cause the step to remove degenerated triangles from the import
	340	* as soon as they're detected. They won't pass any further
	341	* pipeline steps.</li>
	342	* </ul>
	343	*
	344	* <b>2.</b>(if you don't support lines and points at all ...)
	345	* <ul>
	346	* <li>Specify the <code>FindDegenerates</code> flag.</li>
	347	* <li>Specify the <code>SortByPType</code> flag. This moves line and
	348	* point primitives to separate meshes.</li>
	349	* <li>Set the <code>AI_CONFIG_PP_SBP_REMOVE</codet> option to
	350	* <code>aiPrimitiveType_POINTS \| aiPrimitiveType_LINES</code>
	351	* to cause SortByPType to reject point and line meshes from the
	352	* scene.</li>
	353	* </ul>
	354	*
	355	* Note: Degenerated polygons are not necessarily bad and that's why
	356	* they're not removed by default. There are several file formats
	357	* which don't support lines or points. Some exporters bypass the
	358	* format specification and write them as degenerated triangle
	359	* instead.
	360	*/
	361	FindDegenerates = 0x10000,
	362
	363	/**
	364	* This step searches all meshes for invalid data, such as zeroed normal
	365	* vectors or invalid UV coords and removes/fixes them. This is intended
	366	* to get rid of some common exporter errors.
	367	*
	368	* This is especially useful for normals. If they are invalid, and the
	369	* step recognizes this, they will be removed and can later be
	370	* recomputed, e.g. by the <code>GenSmoothNormals</code> step.
	371	*
	372	* The step will also remove meshes that are infinitely small and reduce
	373	* animation tracks consisting of hundreds if redundant keys to a single
	374	* key. The <code>AI_CONFIG_PP_FID_ANIM_ACCURACY</code> config property
	375	* decides the accuracy of the check for duplicate animation tracks.
	376	*/
	377	FindInvalidData = 0x20000,
	378
	379	/**
	380	* This step converts non-UV mappings (such as spherical or cylindrical
	381	* mapping) to proper texture coordinate channels.
	382	*
	383	* Most applications will support UV mapping only, so you will probably
	384	* want to specify this step in every case. Note tha Assimp is not always
	385	* able to match the original mapping implementation of the 3d app which
	386	* produced a model perfectly. It's always better to let the father app
	387	* compute the UV channels, at least 3ds max, maja, blender, lightwave,
	388	* modo, ... are able to achieve this.
	389	*
	390	* Note: If this step is not requested, you'll need to process the
	391	* <code>AI_MATKEY_MAPPING</code> material property in order to
	392	* display all assets properly.
	393	*/
	394	GenUVCoords = 0x40000,
	395
	396	/**
	397	* This step applies per-texture UV transformations and bakes them to
	398	* stand-alone vtexture coordinate channelss.
	399	*
	400	* UV transformations are specified per-texture – see the
	401	* <code>AI_MATKEY_UVTRANSFORM</code> material key for more information.
	402	* This step processes all textures with transformed input UV coordinates
	403	* and generates new (pretransformed) UV channel which replace the old
	404	* channel. Most applications won't support UV transformations, so you
	405	* will probably want to specify this step.
	406	*
	407	* Note: UV transformations are usually implemented in realtime apps by
	408	* transforming texture coordinates at vertex shader stage with a 3x3
	409	* (homogenous) transformation matrix.
	410	*/
	411	TransformUVCoords = 0x80000,
	412
	413	/**
	414	* This step searches for duplicate meshes and replaces duplicates with
	415	* references to the first mesh.
	416	*
	417	* This step takes a while, don't use it if you have no time. Its main
	418	* purpose is to workaround the limitation that many export file formats
	419	* don't support instanced meshes, so exporters need to duplicate meshes.
	420	* This step removes the duplicates again. Please note that Assimp does
	421	* currently not support per-node material assignment to meshes, which
	422	* means that identical meshes with differnent materials are currently
	423	* <em>not</em> joined, although this is planned for future versions.
	424	*/
	425	FindInstances = 0x100000,
	426
	427	/**
	428	* A postprocessing step to reduce the number of meshes.
	429	*
	430	* In fact, it will reduce the number of drawcalls.
	431	*
	432	* This is a very effective optimization and is recommended to be used
	433	* together with <code>OptimizeGraph</code>, if possible. The flag is
	434	* fully compatible with both <code>SplitLargeMeshes</code> and
	435	* <code>SortByPType</code>.
	436	*/
	437	OptimizeMeshes = 0x200000,
	438
	439	/**
	440	* A postprocessing step to optimize the scene hierarchy.
	441	*
	442	* Nodes with no animations, bones, lights or cameras assigned are
	443	* collapsed and joined.
	444	*
	445	* Node names can be lost during this step. If you use special tag nodes
	446	* to pass additional information through your content pipeline, use the
	447	* <code>AI_CONFIG_PP_OG_EXCLUDE_LIST</code> setting to specify a list of
	448	* node names you want to be kept. Nodes matching one of the names in
	449	* this list won't be touched or modified.
	450	*
	451	* Use this flag with caution. Most simple files will be collapsed to a
	452	* single node, complex hierarchies are usually completely lost. That's
	453	* note the right choice for editor environments, but probably a very
	454	* effective optimization if you just want to get the model data, convert
	455	* it to your own format and render it as fast as possible.
	456	*
	457	* This flag is designed to be used with <code>OptimizeMeshes</code> for
	458	* best results.
	459	*
	460	* Note: »Crappy« scenes with thousands of extremely small meshes packed
	461	* in deeply nested nodes exist for almost all file formats.
	462	* <code>OptimizeMeshes</code> in combination with
	463	* <code>OptimizeGraph</code> usually fixes them all and makes them
	464	* renderable.
	465	*/
	466	OptimizeGraph = 0x400000,
	467
	468	/** This step flips all UV coordinates along the y-axis and adjusts
	469	* material settings and bitangents accordingly.
	470	*
	471	* Output UV coordinate system:
	472	* <pre> 0y\|0y ---------- 1x\|0y
	473	* \| \|
	474	* \| \|
	475	* \| \|
	476	* 0x\|1y ---------- 1x\|1y</pre>
	477	* You'll probably want to consider this flag if you use Direct3D for
	478	* rendering. The <code>AI_PROCESS_CONVERT_TO_LEFT_HANDED</code> flag
	479	* supersedes this setting and bundles all conversions typically required
	480	* for D3D-based applications.
	481	*/
	482	FlipUVs = 0x800000,
	483
	484	/**
	485	* This step adjusts the output face winding order to be clockwise.
	486	*
	487	* The default face winding order is counter clockwise.
	488	*
	489	* Output face order:
	490	* <pre> x2
	491	*
	492	* x0
	493	* x1</pre>
	494	*/
	495	FlipWindingOrder = 0x1000000
	496	}
	497
	498	/**
	499	* Abbrevation for convenience.
	500	*/
	501	alias aiPostProcessSteps aiProcess;
	502
	503	/**
	504	* Shortcut flag for Direct3D-based applications.
	505	*
	506	* Combines the <code>MakeLeftHanded</code>, <code>FlipUVs</code> and
	507	* <code>FlipWindingOrder</code> flags. The output data matches Direct3D's
	508	* conventions: left-handed geometry, upper-left origin for UV coordinates
	509	* and clockwise face order, suitable for CCW culling.
	510	*/
	511	const aiPostProcessSteps AI_PROCESS_CONVERT_TO_LEFT_HANDED =
	512	aiProcess.MakeLeftHanded \|
	513	aiProcess.FlipUVs \|
	514	aiProcess.FlipWindingOrder;
	515
	516	/**
	517	* Default postprocess configuration optimizing the data for real-time rendering.
	518	*
	519	* Applications would want to use this preset to load models on end-user
	520	* PCs, maybe for direct use in game.
	521	*
	522	* If you're using DirectX, don't forget to combine this value with
	523	* the <code>ConvertToLeftHanded</code> step. If you don't support UV
	524	* transformations in your application, apply the
	525	* <code>TransformUVCoords</code> step, too.
	526	*
	527	* Note: Please take the time to read the doc for the steps enabled by this
	528	* preset. Some of them offer further configurable properties, some of
	529	* them might not be of use for you so it might be better to not specify
	530	* them.
	531	*/
	532	const aiPostProcessSteps AI_PROCESS_PRESET_TARGET_REALTIME_FAST =
	533	aiProcess.CalcTangentSpace \|
	534	aiProcess.GenNormals \|
	535	aiProcess.JoinIdenticalVertices \|
	536	aiProcess.Triangulate \|
	537	aiProcess.GenUVCoords \|
	538	aiProcess.SortByPType;
	539
	540	/**
	541	* Default postprocess configuration optimizing the data for real-time
	542	* rendering.
	543	*
	544	* Unlike <code>AI_PROCESS_PRESET_TARGET_REALTIME_FAST</code>, this
	545	* configuration performs some extra optimizations to improve rendering
	546	* speed and to minimize memory usage. It could be a good choice for a
	547	* level editor environment where import speed is not so important.
	548	*
	549	* If you're using DirectX, don't forget to combine this value with
	550	* the <code>ConvertToLeftHanded</code> step. If you don't support UV
	551	* transformations in your application, apply the
	552	* <code>TransformUVCoords</code> step, too.
	553	*
	554	* Note: Please take the time to read the doc for the steps enabled by this
	555	* preset. Some of them offer further configurable properties, some of
	556	* them might not be of use for you so it might be better to not specify
	557	* them.
	558	*/
	559	const aiPostProcessSteps AI_PROCESS_PRESET_TARGET_REALTIME_QUALITY =
	560	aiProcess.CalcTangentSpace \|
	561	aiProcess.GenSmoothNormals \|
	562	aiProcess.JoinIdenticalVertices \|
	563	aiProcess.ImproveCacheLocality \|
	564	aiProcess.LimitBoneWeights \|
	565	aiProcess.RemoveRedundantMaterials \|
	566	aiProcess.SplitLargeMeshes \|
	567	aiProcess.Triangulate \|
	568	aiProcess.GenUVCoords \|
	569	aiProcess.SortByPType \|
	570	aiProcess.FindDegenerates \|
	571	aiProcess.FindInvalidData;
	572
	573	/**
	574	* Default postprocess configuration optimizing the data for real-time
	575	* rendering.
	576	*
	577	* This preset enables almost every optimization step to achieve perfectly
	578	* optimized data. It's your choice for level editor environments where
	579	* import speed is not important.
	580	*
	581	* If you're using DirectX, don't forget to combine this value with
	582	* the <code>ConvertToLeftHanded</code> step. If you don't support UV
	583	* transformations in your application, apply the
	584	* <code>TransformUVCoords</code> step, too.
	585	*
	586	* Note: Please take the time to read the doc for the steps enabled by this
	587	* preset. Some of them offer further configurable properties, some of
	588	* them might not be of use for you so it might be better to not specify
	589	* them.
	590	*/
	591	const aiPostProcessSteps AI_PROCESS_PRESET_TARGET_REALTIME_MAX_QUALITY =
	592	AI_PROCESS_PRESET_TARGET_REALTIME_QUALITY \|
	593	aiProcess.FindInstances \|
	594	aiProcess.ValidateDataStructure \|
	595	aiProcess.OptimizeMeshes;
	596	}

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port/dAssimp/assimp/scene.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Contains the data structures which store the hierarchy fo the imported data.
	43	*/
	44	module assimp.scene;
	45
	46	import assimp.animation;
	47	import assimp.camera;
	48	import assimp.light;
	49	import assimp.math;
	50	import assimp.mesh;
	51	import assimp.material;
	52	import assimp.texture;
	53	import assimp.types;
	54
	55	extern ( C ) {
	56	/**
	57	* A node in the imported hierarchy.
	58	*
	59	* Each node has name, a parent node (except for the root node), a
	60	* transformation relative to its parent and possibly several child nodes.
	61	* Simple file formats don't support hierarchical structures, for these
	62	* formats the imported scene does consist of only a single root node with
	63	* no childs.
	64	*/
	65	struct aiNode {
	66	/**
	67	* The name of the node.
	68	*
	69	* The name might be empty (length of zero) but all nodes which need to
	70	* be accessed afterwards by bones or animations are usually named.
	71	* Multiple nodes may have the same name, but nodes which are accessed
	72	* by bones (see <code>aiBone</code> and <code>aiMesh.mBones</code>)
	73	* <em>must</em> be unique.
	74	*
	75	* Cameras and lights are assigned to a specific node name – if there are
	76	* multiple nodes with this name, they are assigned to each of them.
	77	*
	78	* There are no limitations regarding the characters contained in this
	79	* string. You should be able to handle stuff like whitespace, tabs,
	80	* linefeeds, quotation marks, ampersands, …
	81	*/
	82	aiString mName;
	83
	84	/**
	85	* The transformation relative to the node's parent.
	86	*/
	87	aiMatrix4x4 mTransformation;
	88
	89	/**
	90	* Parent node.
	91	*
	92	* null if this node is the root node.
	93	*/
	94	aiNode* mParent;
	95
	96	/**
	97	* The number of child nodes of this node.
	98	*/
	99	uint mNumChildren;
	100
	101	/**
	102	* The child nodes of this node.
	103	*
	104	* null if <code>mNumChildren</code> is 0.
	105	*/
	106	aiNode** mChildren;
	107
	108	/**
	109	* The number of meshes of this node.
	110	*/
	111	int mNumMeshes;
	112
	113	/**
	114	* The meshes of this node.
	115	*
	116	* Each entry is an index for <code>aiScene.mMeshes</code>.
	117	*/
	118	uint* mMeshes;
	119	}
	120
	121	/**
	122	* Flags which are combinated in <code>aiScene.mFlags</code> to store
	123	* auxiliary information about the imported scene.
	124	*/
	125	enum aiSceneFlags : uint {
	126	/**
	127	* Specifies that the scene data structure that was imported is not
	128	* complete.
	129	*
	130	* This flag bypasses some internal validations and allows the import of
	131	* animation skeletons, material libraries or camera animation paths
	132	* using Assimp. Most applications won't support such data.
	133	*/
	134	INCOMPLETE = 0x1,
	135
	136	/**
	137	* This flag is set by the validation post-processing step
	138	* (<code>aiProcess.ValidateDS</code>) if the validation was successful.
	139	*
	140	* In a validated scene you can be sure that any cross references in the
	141	* data structure (e.g. vertex indices) are valid.
	142	*/
	143	VALIDATED = 0x2,
	144
	145	/**
	146	* This flag is set by the validation post-processing step
	147	* (<code>aiProcess.ValidateDS</code>) if the validation is successful
	148	* but some issues have been found.
	149	*
	150	* This can for example mean that a texture that does not exist is
	151	* referenced by a material or that the bone weights for a vertex don't
	152	* sum to 1. In most cases you should still be able to use the import.
	153	*
	154	* This flag could be useful for applications which don't capture
	155	* Assimp's log output.
	156	*/
	157	VALIDATION_WARNING = 0x4,
	158
	159	/**
	160	* This flag is currently only set by the
	161	* <code>aiProcess.JoinIdenticalVertices</code> post-processing step. It
	162	* indicates that the vertices of the output meshes aren't in the
	163	* internal verbose format anymore. In the verbose format all vertices
	164	* are unique, no vertex is ever referenced by more than one face.
	165	*/
	166	NON_VERBOSE_FORMAT = 0x8,
	167
	168	/**
	169	* Denotes pure height-map terrain data. Pure terrains usually consist of
	170	* quads, sometimes triangles, in a regular grid. The x,y coordinates of
	171	* all vertex positions refer to the x,y coordinates on the terrain
	172	* height map, the z-axis stores the elevation at a specific point.
	173	*
	174	* TER (Terragen) and HMP (3D Game Studio) are height map formats.
	175	*
	176	* Note: Assimp is probably not the best choice for loading <em>huge</em>
	177	* terrains – fully triangulated data takes extremely much storage
	178	* space and should be avoided as long as possible (typically you will
	179	* perform the triangulation when you actually need to render it).
	180	*/
	181	FLAGS_TERRAIN = 0x10
	182	}
	183
	184	/**
	185	* The root structure of the imported data.
	186	*
	187	* Everything that was imported from the given file can be accessed from here.
	188	* Objects of this class are generally maintained and owned by Assimp, not
	189	* by the caller. You shouldn't want to instance it, nor should you ever try to
	190	* delete a given scene on your own.
	191	*/
	192	struct aiScene {
	193	/**
	194	* Any combination of the <code>aiSceneFlags</code>. By default, this
	195	* value is 0, no flags are set.
	196	*
	197	* Most applications will want to reject all scenes with the
	198	* <code>aiSceneFlags.INCOMPLETE</code> bit set.
	199	*/
	200	uint mFlags;
	201
	202	/**
	203	* The root node of the hierarchy.
	204	*
	205	* There will always be at least the root node if the import was
	206	* successful (and no special flags have been set). Presence of further
	207	* nodes depends on the format and contents of the imported file.
	208	*/
	209	aiNode* mRootNode;
	210
	211	/**
	212	* The number of meshes in the scene.
	213	*/
	214	uint mNumMeshes;
	215
	216	/**
	217	* The array of meshes.
	218	*
	219	* Use the indices given in the <code>aiNode</code> structure to access
	220	* this array. The array is <code>mNumMeshes</code> in size.
	221	*
	222	* If the <code>aiSceneFlags.INCOMPLETE</code> flag is not set, there
	223	* will always be at least one mesh.
	224	*/
	225	aiMesh** mMeshes;
	226
	227	/**
	228	* The number of materials in the scene.
	229	*/
	230	uint mNumMaterials;
	231
	232	/**
	233	* The array of meshes.
	234	*
	235	* Use the indices given in the <code>aiMesh</code> structure to access
	236	* this array. The array is <code>mNumMaterials</code> in size.
	237	*
	238	* If the <code>aiSceneFlags.INCOMPLETE</code> flag is not set, there
	239	* will always be at least one material.
	240	*/
	241	aiMaterial** mMaterials;
	242
	243	/**
	244	* The number of animations in the scene.
	245	*/
	246	uint mNumAnimations;
	247
	248	/**
	249	* The array of animations.
	250	*
	251	* All animations imported from the given file are listed here. The array
	252	* is <code>mNumAnimations</code> in size.
	253	*/
	254	aiAnimation** mAnimations;
	255
	256	/**
	257	* The number of textures embedded into the file.
	258	*/
	259	uint mNumTextures;
	260
	261	/**
	262	* The array of embedded textures.
	263	*
	264	* Not many file formats embed their textures into the file. An example
	265	* is Quake's <code>MDL</code> format (which is also used by some
	266	* GameStudio versions).
	267	*/
	268	aiTexture** mTextures;
	269
	270	/**
	271	* The number of light sources in the scene.
	272	*
	273	* Light sources are fully optional, in most cases this attribute will be
	274	* 0.
	275	*/
	276	uint mNumLights;
	277
	278	/**
	279	* The array of light sources.
	280	*
	281	* All light sources imported from the given file are listed here. The
	282	* array is <code>mNumLights</code> in size.
	283	*/
	284	aiLight** mLights;
	285
	286	/**
	287	* The number of cameras in the scene.
	288	*
	289	* Cameras are fully optional, in most cases this attribute
	290	* will be 0.
	291	*/
	292	uint mNumCameras;
	293
	294	/**
	295	* The array of cameras.
	296	*
	297	* All cameras imported from the given file are listed here. The array is
	298	* <code>mNumCameras</code> in size.
	299	*
	300	* The first camera in the array (if existing) is the default camera view
	301	* at the scene.
	302	*/
	303	aiCamera** mCameras;
	304	}
	305	}

+122

-0

port/dAssimp/assimp/texture.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Contains helper structures to handle textures in Assimp.
	43	*
	44	* Used for file formats which embed their textures into the model file.
	45	* Supported are both normal textures, which are stored as uncompressed pixels,
	46	* and "compressed" textures, which are stored in a file format such as PNG or
	47	* TGA.
	48	*/
	49	module assimp.texture;
	50
	51	extern ( C ) {
	52	/**
	53	* Helper structure to represent a texel in a ARGB8888 format.
	54	*
	55	* Used by aiTexture.
	56	*/
	57	struct aiTexel {
	58	align ( 1 ):
	59	ubyte b, g, r, a;
	60	}
	61
	62	/**
	63	* Helper structure to describe an embedded texture.
	64	*
	65	* Usually textures are contained in external files but some file formats
	66	* embed them directly in the model file. There are two types of
	67	* embedded textures:
	68	*
	69	* <em>1. Uncompressed textures</em>: The color data is given in an
	70	* uncompressed format.
	71	*
	72	* <em>2. Compressed textures</em> stored in a file format like PNG or JPEG.
	73	* The raw file bytes are given so the application must utilize an image
	74	* decoder (e.g. DevIL) to get access to the actual color data.
	75	*/
	76	struct aiTexture {
	77	/**
	78	* Width of the texture, in pixels.
	79	*
	80	* If <code>mHeight</code> is zero the texture is compressed in a format
	81	* like JPEG. In this case, this value specifies the size of the memory
	82	* area <code>pcData</code> is pointing to, in bytes.
	83	*/
	84	uint mWidth;
	85
	86	/**
	87	* Height of the texture, in pixels.
	88	*
	89	* If this value is zero, <code>pcData</code> points to an compressed
	90	* texture in any format (e.g. JPEG).
	91	*/
	92	uint mHeight;
	93
	94	/**
	95	* A hint from the loader to make it easier for applications to determine
	96	* the type of embedded compressed textures.
	97	*
	98	* If <code>mHeight</code> is not 0, this member is undefined. Otherwise
	99	* it is set set to '\0\0\0\0' if the loader has no additional
	100	* information about the texture file format used, or the file extension
	101	* of the format without a trailing dot. If there are multiple file
	102	* extensions for a format, the shortest extension is chosen (JPEG maps
	103	* to 'jpg', not to 'jpeg'). E.g. 'dds\0', 'pcx\0', 'jpg\0'. All
	104	* characters are lower-case. The fourth byte will always be '\0'.
	105	*/
	106	char achFormatHint[4];
	107
	108	/**
	109	* Data of the texture.
	110	*
	111	* Points to an array of <code>mWidth * mHeight</code>
	112	* <code>aiTexel</code>s. The format of the texture data is always
	113	* ARGB8888 to make the implementation for user of the library as easy as
	114	* possible.
	115	*
	116	* If <code>mHeight</code> is 0, this is a pointer to a memory buffer of
	117	* size <code>mWidth</code> containing the compressed texture data.
	118	*/
	119	aiTexel* pcData;
	120	}
	121	}

+249

-0

port/dAssimp/assimp/types.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Contains miscellaneous types used in Assimp's C API.
	43	*/
	44	module assimp.types;
	45
	46	extern ( C ) {
	47	/**
	48	* Our own C boolean type.
	49	*/
	50	enum aiBool : int {
	51	FALSE = 0,
	52	TRUE = 1
	53	}
	54
	55	/**
	56	* Type definition for log stream callback function pointers.
	57	*/
	58	alias void function( char* message, char* user ) aiLogStreamCallback;
	59
	60	/**
	61	* Represents a log stream. A log stream receives all log messages and
	62	* streams them somewhere.
	63	*
	64	* See: <code>aiGetPredefinedLogStream</code>,
	65	* <code>aiAttachLogStream</code> and <code>aiDetachLogStream</code>.
	66	*/
	67	struct aiLogStream {
	68	/**
	69	* Callback function to be called when a new message arrives.
	70	*/
	71	aiLogStreamCallback callback;
	72
	73	/**
	74	* User data to be passed to the callback.
	75	*/
	76	char* user;
	77	}
	78
	79	/**
	80	* Maximum dimension for <code>aiString</code>s.
	81	*
	82	* Assimp strings are zero terminated.
	83	*/
	84	const size_t MAXLEN = 1024;
	85
	86	/**
	87	* Represents an UTF-8 string, zero byte terminated.
	88	*
	89	* The length of such a string is limited to <code>MAXLEN</code> bytes
	90	* (excluding the terminal \0).
	91	*
	92	* The character set of an aiString is explicitly defined to be UTF-8. This
	93	* Unicode transformation was chosen in the belief that most strings in 3d
	94	* model files are limited to ASCII characters, thus the character set
	95	* needed to be ASCII compatible.
	96	*
	97	* Most text file loaders provide proper Unicode input file handling,
	98	* special unicode characters are correctly transcoded to UTF-8 and are kept
	99	* throughout the libraries' import pipeline.
	100	*
	101	* For most applications, it will be absolutely sufficient to interpret the
	102	* aiString as ASCII data and work with it as one would work with a plain
	103	* char[].
	104	*
	105	* To access an aiString from D you might want to use something like the
	106	* following piece of code:
	107	* ---
	108	* char[] importAiString( aiString* s ) {
	109	* return s.data[ 0 .. s.length ];
	110	* }
	111	* ---
	112	*/
	113	struct aiString {
	114	/**
	115	* Length of the string (excluding the terminal \0).
	116	*
	117	* This is <em>not</em> the logical length of strings containing UTF-8
	118	* multibyte sequences, but the number of bytes from the beginning of the
	119	* string to its end.
	120	*/
	121	size_t length;
	122
	123	/**
	124	* String buffer.
	125	*
	126	* Size limit is <code>MAXLEN</code>.
	127	*/
	128	char data[ MAXLEN ];
	129	}
	130
	131	/**
	132	* Standard return type for some library functions.
	133	*/
	134	enum aiReturn : uint {
	135	/**
	136	* Indicates that a function was successful.
	137	*/
	138	SUCCESS = 0x0,
	139
	140	/**
	141	* Indicates that a function failed.
	142	*/
	143	FAILURE = -0x1,
	144
	145	/**
	146	* Indicates that not enough memory was available to perform the
	147	* requested operation.
	148	*/
	149	OUTOFMEMORY = -0x3
	150	}
	151
	152	/**
	153	* Seek origins (for the virtual file system API).
	154	*/
	155	enum aiOrigin : uint {
	156	/**
	157	* Beginning of the file.
	158	*/
	159	SET = 0x0,
	160
	161	/**
	162	* Current position of the file pointer.
	163	*/
	164	CUR = 0x1,
	165
	166	/**
	167	* End of the file.
	168	*
	169	* Offsets must be negative.
	170	*/
	171	END = 0x2
	172	}
	173
	174	/**
	175	* Enumerates predefined log streaming destinations.
	176	*
	177	* Logging to these streams can be enabled with a single call to
	178	* <code>aiAttachPredefinedLogStream()</code>.
	179	*/
	180	enum aiDefaultLogStream :uint {
	181	/**
	182	* Stream the log to a file.
	183	*/
	184	FILE = 0x1,
	185
	186	/**
	187	* Stream the log to standard output.
	188	*/
	189	STDOUT = 0x2,
	190
	191	/**
	192	* Stream the log to standard error.
	193	*/
	194	STDERR = 0x4,
	195
	196	/**
	197	* MSVC only: Stream the log the the debugger (this relies on
	198	* <code>OutputDebugString</code> from the Win32 SDK).
	199	*/
	200	DEBUGGER = 0x8
	201	}
	202
	203	/**
	204	* Stores the memory requirements for different components (e.g. meshes,
	205	* materials, animations) of an import. All sizes are in bytes.
	206	*/
	207	struct aiMemoryInfo {
	208	/**
	209	* Storage allocated for texture data.
	210	*/
	211	uint textures;
	212
	213	/**
	214	* Storage allocated for material data.
	215	*/
	216	uint materials;
	217
	218	/**
	219	* Storage allocated for mesh data.
	220	*/
	221	uint meshes;
	222
	223	/**
	224	* Storage allocated for node data.
	225	*/
	226	uint nodes;
	227
	228	/**
	229	* Storage allocated for animation data.
	230	*/
	231	uint animations;
	232
	233	/**
	234	* Storage allocated for camera data.
	235	*/
	236	uint cameras;
	237
	238	/**
	239	* Storage allocated for light data.
	240	*/
	241	uint lights;
	242
	243	/**
	244	* Total storage allocated for the full import.
	245	*/
	246	uint total;
	247	}
	248	}

+72

-0

port/dAssimp/assimp/versionInfo.d less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library (ASSIMP)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2009, ASSIMP Development Team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the ASSIMP team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the ASSIMP Development Team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Flags returned by <code>aiGetCompileFlags()</code>.
	43	*/
	44	module assimp.versionInfo;
	45
	46	extern ( C ) {
	47	/**
	48	* Assimp was compiled as a shared object (Windows: DLL).
	49	*/
	50	const uint ASSIMP_CFLAGS_SHARED = 0x1;
	51
	52	/**
	53	* Assimp was compiled against STLport.
	54	*/
	55	const uint ASSIMP_CFLAGS_STLPORT = 0x2;
	56
	57	/**
	58	* Assimp was compiled as a debug build.
	59	*/
	60	const uint ASSIMP_CFLAGS_DEBUG = 0x4;
	61
	62	/**
	63	* Assimp was compiled with ASSIMP_BUILD_BOOST_WORKAROUND defined.
	64	*/
	65	const uint ASSIMP_CFLAGS_NOBOOST = 0x8;
	66
	67	/**
	68	* Assimp was compiled with ASSIMP_BUILD_SINGLETHREADED defined.
	69	*/
	70	const uint ASSIMP_CFLAGS_SINGLETHREADED = 0x10;
	71	}

+19

-0

port/iOS/IPHONEOS_ARM64_TOOLCHAIN.cmake less more

	0	INCLUDE(CMakeForceCompiler)
	1
	2	SET (CMAKE_CROSSCOMPILING TRUE)
	3	SET (CMAKE_SYSTEM_NAME "Darwin")
	4	SET (CMAKE_SYSTEM_PROCESSOR "arm64")
	5
	6	SET (SDKVER "7.1")
	7	SET (DEVROOT "/Applications/Xcode.app/Contents/Developer/Toolchains/XcodeDefault.xctoolchain")
	8	SET (SDKROOT "/Applications/Xcode.app/Contents/Developer/Platforms/iPhoneOS.platform/Developer/SDKs/iPhoneOS${SDKVER}.sdk")
	9	SET (CC "${DEVROOT}/usr/bin/llvm-gcc")
	10	SET (CXX "${DEVROOT}/usr/bin/llvm-g++")
	11
	12	CMAKE_FORCE_C_COMPILER (${CC} LLVM)
	13	CMAKE_FORCE_CXX_COMPILER (${CXX} LLVM)
	14
	15	SET (CMAKE_FIND_ROOT_PATH "${SDKROOT}" "${DEVROOT}")
	16	SET (CMAKE_FIND_ROOT_PATH_MODE_PROGRAM NEVER)
	17	SET (CMAKE_FIND_ROOT_PATH_MODE_LIBRARY ONLY)
	18	SET (CMAKE_FIND_ROOT_PATH_MODE_INCLUDE ONLY)⏎

-19

~~port/iOS/IPHONEOS_ARM6_TOOLCHAIN.cmake~~ less more

0		INCLUDE(CMakeForceCompiler)
1
2		SET (CMAKE_CROSSCOMPILING TRUE)
3		SET (CMAKE_SYSTEM_NAME "Darwin")
4		SET (CMAKE_SYSTEM_PROCESSOR "armv6")
5
6		SET (SDKVER "5.0")
7		SET (DEVROOT "/Developer/Platforms/iPhoneOS.platform/Developer")
8		SET (SDKROOT "/Developer/Platforms/iPhoneOS.platform/Developer/SDKs/iPhoneOS${SDKVER}.sdk")
9		SET (CC "${DEVROOT}/usr/bin/llvm-gcc")
10		SET (CXX "${DEVROOT}/usr/bin/llvm-g++")
11
12		CMAKE_FORCE_C_COMPILER (${CC} LLVM)
13		CMAKE_FORCE_CXX_COMPILER (${CXX} LLVM)
14
15		SET (CMAKE_FIND_ROOT_PATH "${SDKROOT}" "${DEVROOT}")
16		SET (CMAKE_FIND_ROOT_PATH_MODE_PROGRAM NEVER)
17		SET (CMAKE_FIND_ROOT_PATH_MODE_LIBRARY ONLY)
18		SET (CMAKE_FIND_ROOT_PATH_MODE_INCLUDE ONLY)⏎

-19

~~port/iOS/IPHONEOS_ARM7_TOOLCHAIN.cmake~~ less more

0		INCLUDE(CMakeForceCompiler)
1
2		SET (CMAKE_CROSSCOMPILING TRUE)
3		SET (CMAKE_SYSTEM_NAME "Darwin")
4		SET (CMAKE_SYSTEM_PROCESSOR "armv7")
5
6		SET (SDKVER "5.0")
7		SET (DEVROOT "/Developer/Platforms/iPhoneOS.platform/Developer")
8		SET (SDKROOT "/Developer/Platforms/iPhoneOS.platform/Developer/SDKs/iPhoneOS${SDKVER}.sdk")
9		SET (CC "${DEVROOT}/usr/bin/llvm-gcc")
10		SET (CXX "${DEVROOT}/usr/bin/llvm-g++")
11
12		CMAKE_FORCE_C_COMPILER (${CC} LLVM)
13		CMAKE_FORCE_CXX_COMPILER (${CXX} LLVM)
14
15		SET (CMAKE_FIND_ROOT_PATH "${SDKROOT}" "${DEVROOT}")
16		SET (CMAKE_FIND_ROOT_PATH_MODE_PROGRAM NEVER)
17		SET (CMAKE_FIND_ROOT_PATH_MODE_LIBRARY ONLY)
18		SET (CMAKE_FIND_ROOT_PATH_MODE_INCLUDE ONLY)⏎

+19

-0

port/iOS/IPHONEOS_ARMV6_TOOLCHAIN.cmake less more

	0	INCLUDE(CMakeForceCompiler)
	1
	2	SET (CMAKE_CROSSCOMPILING TRUE)
	3	SET (CMAKE_SYSTEM_NAME "Darwin")
	4	SET (CMAKE_SYSTEM_PROCESSOR "armv6")
	5
	6	SET (SDKVER "7.1")
	7	SET (DEVROOT "/Applications/Xcode.app/Contents/Developer/Toolchains/XcodeDefault.xctoolchain")
	8	SET (SDKROOT "/Applications/Xcode.app/Contents/Developer/Platforms/iPhoneOS.platform/Developer/SDKs/iPhoneOS${SDKVER}.sdk")
	9	SET (CC "${DEVROOT}/usr/bin/clang")
	10	SET (CXX "${DEVROOT}/usr/bin/clang++")
	11
	12	CMAKE_FORCE_C_COMPILER (${CC} LLVM)
	13	CMAKE_FORCE_CXX_COMPILER (${CXX} LLVM)
	14
	15	SET (CMAKE_FIND_ROOT_PATH "${SDKROOT}" "${DEVROOT}")
	16	SET (CMAKE_FIND_ROOT_PATH_MODE_PROGRAM NEVER)
	17	SET (CMAKE_FIND_ROOT_PATH_MODE_LIBRARY ONLY)
	18	SET (CMAKE_FIND_ROOT_PATH_MODE_INCLUDE ONLY)⏎

+19

-0

port/iOS/IPHONEOS_ARMV7S_TOOLCHAIN.cmake less more

	0	INCLUDE(CMakeForceCompiler)
	1
	2	SET (CMAKE_CROSSCOMPILING TRUE)
	3	SET (CMAKE_SYSTEM_NAME "Darwin")
	4	SET (CMAKE_SYSTEM_PROCESSOR "armv7s")
	5
	6	SET (SDKVER "7.1")
	7	SET (DEVROOT "/Applications/Xcode.app/Contents/Developer/Toolchains/XcodeDefault.xctoolchain")
	8	SET (SDKROOT "/Applications/Xcode.app/Contents/Developer/Platforms/iPhoneOS.platform/Developer/SDKs/iPhoneOS${SDKVER}.sdk")
	9	SET (CC "${DEVROOT}/usr/bin/clang")
	10	SET (CXX "${DEVROOT}/usr/bin/clang++")
	11
	12	CMAKE_FORCE_C_COMPILER (${CC} LLVM)
	13	CMAKE_FORCE_CXX_COMPILER (${CXX} LLVM)
	14
	15	SET (CMAKE_FIND_ROOT_PATH "${SDKROOT}" "${DEVROOT}")
	16	SET (CMAKE_FIND_ROOT_PATH_MODE_PROGRAM NEVER)
	17	SET (CMAKE_FIND_ROOT_PATH_MODE_LIBRARY ONLY)
	18	SET (CMAKE_FIND_ROOT_PATH_MODE_INCLUDE ONLY)⏎

+19

-0

port/iOS/IPHONEOS_ARMV7_TOOLCHAIN.cmake less more

	0	INCLUDE(CMakeForceCompiler)
	1
	2	SET (CMAKE_CROSSCOMPILING TRUE)
	3	SET (CMAKE_SYSTEM_NAME "Darwin")
	4	SET (CMAKE_SYSTEM_PROCESSOR "armv7")
	5
	6	SET (SDKVER "7.1")
	7	SET (DEVROOT "/Applications/Xcode.app/Contents/Developer/Toolchains/XcodeDefault.xctoolchain")
	8	SET (SDKROOT "/Applications/Xcode.app/Contents/Developer/Platforms/iPhoneOS.platform/Developer/SDKs/iPhoneOS${SDKVER}.sdk")
	9	SET (CC "${DEVROOT}/usr/bin/clang")
	10	SET (CXX "${DEVROOT}/usr/bin/clang++")
	11
	12	CMAKE_FORCE_C_COMPILER (${CC} LLVM)
	13	CMAKE_FORCE_CXX_COMPILER (${CXX} LLVM)
	14
	15	SET (CMAKE_FIND_ROOT_PATH "${SDKROOT}" "${DEVROOT}")
	16	SET (CMAKE_FIND_ROOT_PATH_MODE_PROGRAM NEVER)
	17	SET (CMAKE_FIND_ROOT_PATH_MODE_LIBRARY ONLY)
	18	SET (CMAKE_FIND_ROOT_PATH_MODE_INCLUDE ONLY)⏎

+20

-0

port/iOS/IPHONEOS_I386_TOOLCHAIN.cmake less more

	0	INCLUDE(CMakeForceCompiler)
	1
	2	SET (CMAKE_CROSSCOMPILING TRUE)
	3	SET (CMAKE_SYSTEM_NAME "Darwin")
	4	SET (CMAKE_SYSTEM_PROCESSOR "i386")
	5
	6	SET (SDKVER "7.1")
	7
	8	SET (DEVROOT "/Applications/Xcode.app/Contents/Developer/Toolchains/XcodeDefault.xctoolchain")
	9	SET (SDKROOT "/Applications/Xcode.app/Contents/Developer/Platforms/iPhoneSimulator.platform/Developer/SDKs/iPhoneSimulator${SDKVER}.sdk")
	10	SET (CC "${DEVROOT}/usr/bin/clang")
	11	SET (CXX "${DEVROOT}/usr/bin/clang++")
	12
	13	CMAKE_FORCE_C_COMPILER (${CC} LLVM)
	14	CMAKE_FORCE_CXX_COMPILER (${CXX} LLVM)
	15
	16	SET (CMAKE_FIND_ROOT_PATH "${SDKROOT}" "${DEVROOT}")
	17	SET (CMAKE_FIND_ROOT_PATH_MODE_PROGRAM NEVER)
	18	SET (CMAKE_FIND_ROOT_PATH_MODE_LIBRARY ONLY)
	19	SET (CMAKE_FIND_ROOT_PATH_MODE_INCLUDE ONLY)⏎

+20

-0

port/iOS/IPHONEOS_X86_64_TOOLCHAIN.cmake less more

	0	INCLUDE(CMakeForceCompiler)
	1
	2	SET (CMAKE_CROSSCOMPILING TRUE)
	3	SET (CMAKE_SYSTEM_NAME "Darwin")
	4	SET (CMAKE_SYSTEM_PROCESSOR "x86_64")
	5
	6	SET (SDKVER "7.1")
	7
	8	SET (DEVROOT "/Applications/Xcode.app/Contents/Developer/Toolchains/XcodeDefault.xctoolchain")
	9	SET (SDKROOT "/Applications/Xcode.app/Contents/Developer/Platforms/iPhoneSimulator.platform/Developer/SDKs/iPhoneSimulator${SDKVER}.sdk")
	10	SET (CC "${DEVROOT}/usr/bin/clang")
	11	SET (CXX "${DEVROOT}/usr/bin/clang++")
	12
	13	CMAKE_FORCE_C_COMPILER (${CC} LLVM)
	14	CMAKE_FORCE_CXX_COMPILER (${CXX} LLVM)
	15
	16	SET (CMAKE_FIND_ROOT_PATH "${SDKROOT}" "${DEVROOT}")
	17	SET (CMAKE_FIND_ROOT_PATH_MODE_PROGRAM NEVER)
	18	SET (CMAKE_FIND_ROOT_PATH_MODE_LIBRARY ONLY)
	19	SET (CMAKE_FIND_ROOT_PATH_MODE_INCLUDE ONLY)⏎

-19

~~port/iOS/IPHONEOS_i386_TOOLCHAIN.cmake~~ less more

0		INCLUDE(CMakeForceCompiler)
1
2		SET (CMAKE_CROSSCOMPILING TRUE)
3		SET (CMAKE_SYSTEM_NAME "Darwin")
4		SET (CMAKE_SYSTEM_PROCESSOR "i386")
5
6		SET (SDKVER "5.0")
7		SET (DEVROOT "/Developer/Platforms/iPhoneOS.platform/Developer")
8		SET (SDKROOT "/Developer/Platforms/iPhoneOS.platform/Developer/SDKs/iPhoneOS${SDKVER}.sdk")
9		SET (CC "${DEVROOT}/usr/bin/llvm-gcc")
10		SET (CXX "${DEVROOT}/usr/bin/llvm-g++")
11
12		CMAKE_FORCE_C_COMPILER (${CC} LLVM)
13		CMAKE_FORCE_CXX_COMPILER (${CXX} LLVM)
14
15		SET (CMAKE_FIND_ROOT_PATH "${SDKROOT}" "${DEVROOT}")
16		SET (CMAKE_FIND_ROOT_PATH_MODE_PROGRAM NEVER)
17		SET (CMAKE_FIND_ROOT_PATH_MODE_LIBRARY ONLY)
18		SET (CMAKE_FIND_ROOT_PATH_MODE_INCLUDE ONLY)⏎

+30

-0

port/iOS/README.md less more

	0	# assimp for iOS-SDK 7.1
	1	(deployment target 6.0+, 32/64bit)
	2
	3	Builds assimp libraries for several iOS CPU architectures at once, and outputs a fat binary from the result.
	4
	5	Run the build.sh script from the ```./port/iOS/``` directory. See ./build.sh --help for information about command line options.
	6
	7	```bash
	8	shadeds-Mac:iOS arul$ ./build.sh --help
	9	[!] ./build.sh - assimp iOS build script
	10	- don't build fat library (--no-fat)
	11	- supported architectures(--archs): armv7, armv7s, arm64, i386, x86_64
	12	- supported C++ STD libs.(--stdlib): libc++, libstdc++
	13	```
	14	Example:
	15	```bash
	16	cd ./port/iOS/
	17	./build.sh --stdlib=libc++ --archs="armv7 arm64 i386"
	18	```
	19	Supported architectures/devices:
	20
	21	### Simulator
	22	- i386
	23	- x86_64
	24
	25	### Device
	26	- ~~ARMv6 (dropped after iOS 6.0)~~
	27	- ARMv7
	28	- ARMv7-s
	29	- ARM64

-13

~~port/iOS/README.txt~~ less more

0		To build for iOS simply execute "./build_ios.sh" from this folder. Currently this script requires the latest SDK (5.0) from Apple in order to build properly. In the future I will add support for specifying the SDK version on the command line.
1
2		Once the build is completed you will see a "ios" folder under /lib. This folder has sub folders for each of the following architectures:
3
4		* armv6 (Older Devices)
5		* armv7 (New Devices)
6		* i386 (Simulator)
7
8		Each of these folders contains a single static library for that architecture. In addition the libassimp.a file in the root of this folder is a combined archive (fat binary) library for all of the above architectures.
9
10		This port is being maintained by Matt Mathias <mmathias01@gmail.com> please contact him with any questions or comments.
11
12

+115

-0

port/iOS/build.sh less more

	0	#!/bin/bash
	1
	2	#
	3	# Written and maintained by the.arul@gmail.com (2014)
	4	#
	5
	6	BUILD_DIR="./lib/iOS"
	7
	8	IOS_SDK_VERSION=7.1
	9	IOS_SDK_TARGET=6.0
	10	#(iPhoneOS iPhoneSimulator) -- determined from arch
	11	IOS_SDK_DEVICE=
	12
	13	XCODE_ROOT_DIR=/Applications/Xcode.app/Contents
	14	TOOLCHAIN=$XCODE_ROOT_DIR//Developer/Toolchains/XcodeDefault.xctoolchain
	15
	16	BUILD_ARCHS_DEVICE="armv7 armv7s arm64"
	17	BUILD_ARCHS_SIMULATOR="i386 x86_64"
	18	BUILD_ARCHS_ALL=(armv7 armv7s arm64 i386 x86_64)
	19
	20	CPP_DEV_TARGET_LIST=(miphoneos-version-min mios-simulator-version-min)
	21	CPP_DEV_TARGET=
	22	CPP_STD_LIB_LIST=(libc++ libstdc++)
	23	CPP_STD_LIB=
	24
	25	function join { local IFS="$1"; shift; echo "$*"; }
	26
	27	build_arch()
	28	{
	29	IOS_SDK_DEVICE=iPhoneOS
	30	CPP_DEV_TARGET=${CPP_DEV_TARGET_LIST[0]}
	31
	32	if [[ "$BUILD_ARCHS_SIMULATOR" =~ "$1" ]]
	33	then
	34	echo '[!] Target SDK set to SIMULATOR.'
	35	IOS_SDK_DEVICE=iPhoneSimulator
	36	CPP_DEV_TARGET=${CPP_DEV_TARGET_LIST[1]}
	37	else
	38	echo '[!] Target SDK set to DEVICE.'
	39	fi
	40
	41	unset DEVROOT SDKROOT CFLAGS LDFLAGS CPPFLAGS CXXFLAGS
	42
	43	export DEVROOT=$XCODE_ROOT_DIR/Developer/Platforms/$IOS_SDK_DEVICE.platform/Developer
	44	export SDKROOT=$DEVROOT/SDKs/$IOS_SDK_DEVICE$IOS_SDK_VERSION.sdk
	45	export CFLAGS="-arch $1 -pipe -no-cpp-precomp -stdlib=$CPP_STD_LIB -isysroot $SDKROOT -$CPP_DEV_TARGET=$IOS_SDK_TARGET -I$SDKROOT/usr/include/"
	46	export LDFLAGS="-L$SDKROOT/usr/lib/"
	47	export CPPFLAGS=$CFLAGS
	48	export CXXFLAGS=$CFLAGS
	49
	50	rm CMakeCache.txt
	51
	52	cmake -G 'Unix Makefiles' -DCMAKE_TOOLCHAIN_FILE=./port/iOS/IPHONEOS_$(echo $1 \| tr '[:lower:]' '[:upper:]')_TOOLCHAIN.cmake -DENABLE_BOOST_WORKAROUND=ON -DASSIMP_BUILD_STATIC_LIB=ON
	53
	54	echo "[!] Building $1 library"
	55
	56	$XCODE_ROOT_DIR/Developer/usr/bin/make clean
	57	$XCODE_ROOT_DIR/Developer/usr/bin/make assimp -j 8 -l
	58
	59	echo "[!] Moving built library into: $BUILD_DIR/$1/"
	60
	61	mv ./lib/libassimp.a $BUILD_DIR/$1/
	62	}
	63
	64	echo "[!] $0 - assimp iOS build script"
	65
	66	CPP_STD_LIB=${CPP_STD_LIB_LIST[0]}
	67	DEPLOY_ARCHS=${BUILD_ARCHS_ALL[*]}
	68	DEPLOY_FAT=1
	69
	70	for i in "$@"; do
	71	case $i in
	72	-l=\|--stdlib=)
	73	CPP_STD_LIB=`echo $i \| sed 's/[-a-zA-Z0-9]*=//'`
	74	echo "[!] Selecting c++ std lib: $CPP_STD_LIB"
	75	;;
	76	-a=\|--archs=)
	77	DEPLOY_ARCHS=`echo $i \| sed 's/[-a-zA-Z0-9]*=//'`
	78	echo "[!] Selecting architectures: $DEPLOY_ARCHS"
	79	;;
	80	-n\|--no-fat)
	81	DEPLOY_FAT=0
	82	echo "[!] Fat binary will not be created."
	83	;;
	84	-h\|--help)
	85	echo " - don't build fat library (--no-fat)."
	86	echo " - supported architectures (--archs): $(echo $(join , ${BUILD_ARCHS_ALL[*]}) \| sed 's/,/, /g')"
	87	echo " - supported C++ STD libs. (--stdlib): $(echo $(join , ${CPP_STD_LIB_LIST[*]}) \| sed 's/,/, /g')"
	88	exit
	89	;;
	90	*)
	91	;;
	92	esac
	93	done
	94
	95	cd ../../
	96	rm -rf $BUILD_DIR
	97
	98	for ARCH_TARGET in $DEPLOY_ARCHS; do
	99	mkdir -p $BUILD_DIR/$ARCH_TARGET
	100	build_arch $ARCH_TARGET
	101	#rm ./lib/libassimp.a
	102	done
	103
	104	if [[ "$DEPLOY_FAT" -eq 1 ]]; then
	105	echo '[+] Creating fat binary ...'
	106	for ARCH_TARGET in $DEPLOY_ARCHS; do
	107	LIPO_ARGS="$LIPO_ARGS-arch $ARCH_TARGET $BUILD_DIR/$ARCH_TARGET/libassimp.a "
	108	done
	109	LIPO_ARGS="$LIPO_ARGS-create -output $BUILD_DIR/libassimp-fat.a"
	110	lipo $LIPO_ARGS
	111	echo "[!] Done! The fat binary can be found at $BUILD_DIR"
	112	fi
	113
	114

-104

~~port/iOS/build_ios.sh~~ less more

0		#!/bin/sh
1		# build.sh
2
3		#######################
4		# BUILD ASSIMP for iOS and iOS Simulator
5		#######################
6
7		BUILD_DIR="./lib/ios"
8
9		IOS_BASE_SDK="5.0"
10		IOS_DEPLOY_TGT="3.2"
11
12		setenv_all()
13		{
14		# Add internal libs
15		export CFLAGS="$CFLAGS"
16		export CPP="$DEVROOT/usr/bin/llvm-cpp-4.2"
17		export CXX="$DEVROOT/usr/bin/llvm-g++-4.2"
18		export CXXCPP="$DEVROOT/usr/bin/llvm-cpp-4.2"
19		export CC="$DEVROOT/usr/bin/llvm-gcc-4.2"
20		export LD=$DEVROOT/usr/bin/ld
21		export AR=$DEVROOT/usr/bin/ar
22		export AS=$DEVROOT/usr/bin/as
23		export NM=$DEVROOT/usr/bin/nm
24		export RANLIB=$DEVROOT/usr/bin/ranlib
25		export LDFLAGS="-L$SDKROOT/usr/lib/"
26
27		export CPPFLAGS=$CFLAGS
28		export CXXFLAGS=$CFLAGS
29		}
30
31		setenv_arm6()
32		{
33		unset DEVROOT SDKROOT CFLAGS CC LD CPP CXX AR AS NM CXXCPP RANLIB LDFLAGS CPPFLAGS CXXFLAGS
34		export DEVROOT=/Developer/Platforms/iPhoneOS.platform/Developer
35		export SDKROOT=$DEVROOT/SDKs/iPhoneOS$IOS_BASE_SDK.sdk
36		export CFLAGS="-arch armv6 -pipe -no-cpp-precomp -isysroot $SDKROOT -miphoneos-version-min=$IOS_DEPLOY_TGT -I$SDKROOT/usr/include/"
37		setenv_all
38		rm CMakeCache.txt
39		cmake -G 'Unix Makefiles' -DCMAKE_TOOLCHAIN_FILE=./port/iOS/IPHONEOS_ARM6_TOOLCHAIN.cmake -DENABLE_BOOST_WORKAROUND=ON -DBUILD_STATIC_LIB=ON
40		}
41
42		setenv_arm7()
43		{
44		unset DEVROOT SDKROOT CFLAGS CC LD CPP CXX AR AS NM CXXCPP RANLIB LDFLAGS CPPFLAGS CXXFLAGS
45		export DEVROOT=/Developer/Platforms/iPhoneOS.platform/Developer
46		export SDKROOT=$DEVROOT/SDKs/iPhoneOS$IOS_BASE_SDK.sdk
47		export CFLAGS="-arch armv7 -pipe -no-cpp-precomp -isysroot $SDKROOT -miphoneos-version-min=$IOS_DEPLOY_TGT -I$SDKROOT/usr/include/"
48		setenv_all
49		rm CMakeCache.txt
50		cmake -G 'Unix Makefiles' -DCMAKE_TOOLCHAIN_FILE=./port/iOS/IPHONEOS_ARM7_TOOLCHAIN.cmake -DENABLE_BOOST_WORKAROUND=ON -DBUILD_STATIC_LIB=ON
51		}
52
53		setenv_i386()
54		{
55		unset DEVROOT SDKROOT CFLAGS CC LD CPP CXX AR AS NM CXXCPP RANLIB LDFLAGS CPPFLAGS CXXFLAGS
56		export DEVROOT=/Developer/Platforms/iPhoneSimulator.platform/Developer
57		export SDKROOT=$DEVROOT/SDKs/iPhoneSimulator$IOS_BASE_SDK.sdk
58		export CFLAGS="-arch i386 -pipe -no-cpp-precomp -isysroot $SDKROOT -miphoneos-version-min=$IOS_DEPLOY_TGT"
59		setenv_all
60		rm CMakeCache.txt
61		cmake -G 'Unix Makefiles' -DCMAKE_TOOLCHAIN_FILE=./port/iOS/IPHONEOS_i386_TOOLCHAIN.cmake -DENABLE_BOOST_WORKAROUND=ON -DBUILD_STATIC_LIB=ON
62		}
63
64		create_outdir()
65		{
66		for lib_i386 in `find $BUILD_DIR/i386 -name "lib*\.a"`; do
67		lib_arm6=`echo $lib_i386 \| sed "s/i386/arm6/g"`
68		lib_arm7=`echo $lib_i386 \| sed "s/i386/arm7/g"`
69		lib=`echo $lib_i386 \| sed "s/i386\///g"`
70		echo 'Creating fat binary...'
71		lipo -arch armv6 $lib_arm6 -arch armv7 $lib_arm7 -arch i386 $lib_i386 -create -output $lib
72		done
73		echo 'Done! You will find the libaries and fat binary library in /lib/ios'
74		}
75		cd ../../
76
77		rm -rf $BUILD_DIR
78		mkdir -p $BUILD_DIR/arm6 $BUILD_DIR/arm7 $BUILD_DIR/i386
79
80		setenv_arm6
81		echo 'Building armv6 library'
82		make clean
83		make assimp -j 8 -l
84		cp ./lib/libassimp.a $BUILD_DIR/arm6/
85
86		setenv_arm7
87		echo 'Building armv7 library'
88		make clean
89		make assimp -j 8 -l
90		cp ./lib/libassimp.a $BUILD_DIR/arm7/
91
92
93		setenv_i386
94		echo 'Building i386 library'
95		make clean
96		make assimp -j 8 -l
97		cp ./lib/libassimp.a $BUILD_DIR/i386/
98
99		rm ./lib/libassimp.a
100
101		create_outdir
102
103

+52

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port/jassimp/README less more

	0	jassimp
	1	-------
	2
	3	Java binding for assimp.
	4
	5	The class model used by jassimp is not a one-to-one mapping of assimps class/
	6	structure model (due to performance considerations). Please read the javadoc
	7	descriptions of AiMesh and AiWrapperProvider.
	8
	9	The jassimp.lwjgl package contains a LWJGL specific wrapper provider and some
	10	application examples using this wrapper
	11
	12
	13
	14	How To Build
	15	------------
	16
	17	I) native library
	18
	19	II) Java binding
	20	The java library is built using ant. Executing "ant" in the port/jassimp
	21	directory should be sufficient to build the library including docs. You
	22	still need to build the native library separately, see above
	23
	24	The java build is configured to create java 1.6 classes
	25
	26
	27
	28	Limitations
	29	-----------
	30
	31	Not all data imports have been tested yet, especially the countless texture
	32	parameters. If you find bugs please report them.
	33
	34	jassimp supports most of assimps features. Current limitations are
	35	* only importing scenes is supported. There are some methods that allow a
	36	modification of the returned objects, but these should be considered as
	37	work in progress. Full blown export support is planned for a future release
	38	* no support for mesh animations
	39	* no support for embedded textures
	40	* no support for importer configurations
	41	* no support for the custom I/O API of assimp
	42	* some texture related material properties are not exposed via the API but only
	43	accessible by traversing the list of properties. However this limitation is
	44	also present in the c-API ...
	45
	46
	47	License
	48	-------
	49
	50	The license for jassimp is the same as the main Assimp license.
	51

+45

-0

port/jassimp/build.xml less more

	0	<project name="jassimp" basedir="." default="all">
	1	<property name="native-src.dir" value="jassimp-native/src" />
	2	<property name="src.dir" value="jassimp/src" />
	3	<property name="jassimp.lwjgl-src.dir" value="jassimp.lwjgl/src" />
	4	<property name="build.dir" value="jassimp/bin" />
	5	<property name="dist.dir" value="dist" />
	6	<property name="doc.dir" value="doc" />
	7
	8	<path id="classpath">
	9	</path>
	10
	11	<target name="compile">
	12	<delete dir="${build.dir}" />
	13	<mkdir dir="${build.dir}" />
	14	<javac classpathref="classpath" destdir="${build.dir}" srcdir="${src.dir}"
	15	source="1.6" target="1.6" includeantruntime="false">
	16	</javac>
	17	</target>
	18
	19	<target name="jni_header">
	20	<mkdir dir="${native-src.dir}" />
	21	<javah outputfile="${native-src.dir}/jassimp.h" force="yes">
	22	<classpath>
	23	<pathelement path="${build.dir}" />
	24	</classpath>
	25	<class name="jassimp.Jassimp" />
	26	</javah>
	27	</target>
	28
	29	<target name="package" depends="compile">
	30	<jar destfile="${dist.dir}/jassimp.jar" basedir="${build.dir}">
	31	</jar>
	32	</target>
	33
	34
	35	<target name="doc">
	36	<delete dir="${doc.dir}" />
	37	<javadoc access="public" author="false" destdir="${doc.dir}"
	38	sourcepath="${src.dir}">
	39	</javadoc>
	40	</target>
	41
	42	<target name="all" depends="package, doc">
	43	</target>
	44	</project>⏎

+112

-0

port/jassimp/jassimp/src/jassimp/AiAnimBehavior.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* Defines how an animation channel behaves outside the defined time range.
	45	*/
	46	public enum AiAnimBehavior {
	47	/**
	48	* The value from the default node transformation is taken.
	49	*/
	50	DEFAULT(0x0),
	51
	52
	53	/**
	54	* The nearest key value is used without interpolation.
	55	*/
	56	CONSTANT(0x1),
	57
	58
	59	/**
	60	* The value of the nearest two keys is linearly extrapolated for the
	61	* current time value.
	62	*/
	63	LINEAR(0x2),
	64
	65
	66	/**
	67	* The animation is repeated.<p>
	68	*
	69	* If the animation key go from n to m and the current time is t, use the
	70	* value at (t-n) % (\|m-n\|).
	71	*/
	72	REPEAT(0x3);
	73
	74
	75	/**
	76	* Utility method for converting from c/c++ based integer enums to java
	77	* enums.<p>
	78	*
	79	* This method is intended to be used from JNI and my change based on
	80	* implementation needs.
	81	*
	82	* @param rawValue an integer based enum value (as defined by assimp)
	83	* @return the enum value corresponding to rawValue
	84	*/
	85	static AiAnimBehavior fromRawValue(int rawValue) {
	86	for (AiAnimBehavior type : AiAnimBehavior.values()) {
	87	if (type.m_rawValue == rawValue) {
	88	return type;
	89	}
	90	}
	91
	92	throw new IllegalArgumentException("unexptected raw value: " +
	93	rawValue);
	94	}
	95
	96
	97	/**
	98	* Constructor.
	99	*
	100	* @param rawValue maps java enum to c/c++ integer enum values
	101	*/
	102	private AiAnimBehavior(int rawValue) {
	103	m_rawValue = rawValue;
	104	}
	105
	106
	107	/**
	108	* The mapped c/c++ integer enum value.
	109	*/
	110	private final int m_rawValue;
	111	}

+179

-0

port/jassimp/jassimp/src/jassimp/AiAnimation.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.util.ArrayList;
	43	import java.util.List;
	44
	45	/**
	46	* An animation.<p>
	47	*
	48	* An animation consists of keyframe data for a number of nodes. For
	49	* each node affected by the animation a separate series of data is given.<p>
	50	*
	51	* Like {@link AiMesh}, the animation related classes offer a Buffer API, a
	52	* Direct API and a wrapped API. Please consult the documentation of
	53	* {@link AiMesh} for a description and comparison of these APIs.
	54	*/
	55	public final class AiAnimation {
	56	/**
	57	* Constructor.
	58	*
	59	* @param name name
	60	* @param duration duration
	61	* @param ticksPerSecond ticks per second
	62	*/
	63	AiAnimation(String name, double duration, double ticksPerSecond) {
	64	m_name = name;
	65	m_duration = duration;
	66	m_ticksPerSecond = ticksPerSecond;
	67	}
	68
	69
	70	/**
	71	* Returns the name of the animation.<p>
	72	*
	73	* If the modeling package this data was exported from does support only
	74	* a single animation channel, this name is usually empty (length is zero).
	75	*
	76	* @return the name
	77	*/
	78	public String getName() {
	79	return m_name;
	80	}
	81
	82
	83	/**
	84	* Returns the duration of the animation in ticks.
	85	*
	86	* @return the duration
	87	*/
	88	public double getDuration() {
	89	return m_duration;
	90	}
	91
	92
	93	/**
	94	* Returns the ticks per second.<p>
	95	*
	96	* 0 if not specified in the imported file
	97	*
	98	* @return the number of ticks per second
	99	*/
	100	public double getTicksPerSecond() {
	101	return m_ticksPerSecond;
	102	}
	103
	104
	105	/**
	106	* Returns the number of bone animation channels.<p>
	107	*
	108	* Each channel affects a single node. This method will return the same
	109	* value as <code>getChannels().size()</code>
	110	*
	111	* @return the number of bone animation channels
	112	*/
	113	public int getNumChannels() {
	114	return m_nodeAnims.size();
	115	}
	116
	117
	118	/**
	119	* Returns the list of bone animation channels.<p>
	120	*
	121	* Each channel affects a single node. The array is mNumChannels in size.
	122	*
	123	* @return the list of bone animation channels
	124	*/
	125	public List<AiNodeAnim> getChannels() {
	126	return m_nodeAnims;
	127	}
	128
	129
	130	/**
	131	* Returns the number of mesh animation channels.<p>
	132	*
	133	* Each channel affects a single mesh and defines vertex-based animation.
	134	* This method will return the same value as
	135	* <code>getMeshChannels().size()</code>
	136	*
	137	* @return the number of mesh animation channels
	138	*/
	139	public int getNumMeshChannels() {
	140	throw new UnsupportedOperationException("not implemented yet");
	141	}
	142
	143
	144	/**
	145	* Returns the list of mesh animation channels.<p>
	146	*
	147	* Each channel affects a single mesh.
	148	*
	149	* @return the list of mesh animation channels
	150	*/
	151	public List<AiMeshAnim> getMeshChannels() {
	152	throw new UnsupportedOperationException("not implemented yet");
	153	}
	154
	155
	156	/**
	157	* Name.
	158	*/
	159	private final String m_name;
	160
	161
	162	/**
	163	* Duration.
	164	*/
	165	private final double m_duration;
	166
	167
	168	/**
	169	* Ticks per second.
	170	*/
	171	private final double m_ticksPerSecond;
	172
	173
	174	/**
	175	* Bone animation channels.
	176	*/
	177	private final List<AiNodeAnim> m_nodeAnims = new ArrayList<AiNodeAnim>();
	178	}⏎

+117

-0

port/jassimp/jassimp/src/jassimp/AiBlendMode.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* Defines alpha-blend flags.<p>
	45	*
	46	* If you're familiar with OpenGL or D3D, these flags aren't new to you.
	47	* They define how the final color value of a pixel is computed, basing
	48	* on the previous color at that pixel and the new color value from the
	49	* material. The blend formula is:
	50	* <br><code>
	51	* SourceColor * SourceBlend + DestColor * DestBlend
	52	* </code><br>
	53	* where <code>DestColor</code> is the previous color in the framebuffer at
	54	* this position and <code>SourceColor</code> is the material color before the
	55	* transparency calculation.
	56	*/
	57	public enum AiBlendMode {
	58	/**
	59	* Default blending.<p>
	60	*
	61	* Formula:
	62	* <code>
	63	* SourceColorSourceAlpha + DestColor(1-SourceAlpha)
	64	* </code>
	65	*/
	66	DEFAULT(0x0),
	67
	68
	69	/**
	70	* Additive blending.<p>
	71	*
	72	* Formula:
	73	* <code>
	74	* SourceColor1 + DestColor1
	75	* </code>
	76	*/
	77	ADDITIVE(0x1);
	78
	79
	80	/**
	81	* Utility method for converting from c/c++ based integer enums to java
	82	* enums.<p>
	83	*
	84	* This method is intended to be used from JNI and my change based on
	85	* implementation needs.
	86	*
	87	* @param rawValue an integer based enum value (as defined by assimp)
	88	* @return the enum value corresponding to rawValue
	89	*/
	90	static AiBlendMode fromRawValue(int rawValue) {
	91	for (AiBlendMode type : AiBlendMode.values()) {
	92	if (type.m_rawValue == rawValue) {
	93	return type;
	94	}
	95	}
	96
	97	throw new IllegalArgumentException("unexptected raw value: " +
	98	rawValue);
	99	}
	100
	101
	102	/**
	103	* Constructor.
	104	*
	105	* @param rawValue maps java enum to c/c++ integer enum values
	106	*/
	107	private AiBlendMode(int rawValue) {
	108	m_rawValue = rawValue;
	109	}
	110
	111
	112	/**
	113	* The mapped c/c++ integer enum value.
	114	*/
	115	private final int m_rawValue;
	116	}⏎

+137

-0

port/jassimp/jassimp/src/jassimp/AiBone.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.util.ArrayList;
	43	import java.util.List;
	44
	45
	46	/**
	47	* A single bone of a mesh.<p>
	48	*
	49	* A bone has a name by which it can be found in the frame hierarchy and by
	50	* which it can be addressed by animations. In addition it has a number of
	51	* influences on vertices.<p>
	52	*
	53	* This class is designed to be mutable, i.e., the returned collections are
	54	* writable and may be modified.
	55	*/
	56	public final class AiBone {
	57	/**
	58	* Constructor.
	59	*/
	60	AiBone() {
	61	/* nothing to do */
	62	}
	63
	64
	65	/**
	66	* Returns the name of the bone.
	67	*
	68	* @return the name
	69	*/
	70	public String getName() {
	71	return m_name;
	72	}
	73
	74
	75	/**
	76	* Returns the number of bone weights.<p>
	77	*
	78	* This method exists for compatibility with the native assimp API.
	79	* The returned value is identical to <code>getBoneWeights().size()</code>
	80	*
	81	* @return the number of weights
	82	*/
	83	public int getNumWeights() {
	84	return m_boneWeights.size();
	85	}
	86
	87
	88	/**
	89	* Returns a list of bone weights.
	90	*
	91	* @return the bone weights
	92	*/
	93	public List<AiBoneWeight> getBoneWeights() {
	94	return m_boneWeights;
	95	}
	96
	97
	98	/**
	99	* Returns the offset matrix.<p>
	100	*
	101	* The offset matrix is a 4x4 matrix that transforms from mesh space to
	102	* bone space in bind pose.<p>
	103	*
	104	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	105	* for details on wrappers).
	106	*
	107	* @param wrapperProvider the wrapper provider (used for type inference)
	108	*
	109	* @return the offset matrix
	110	*/
	111	@SuppressWarnings("unchecked")
	112	public <V3, M4, C, N, Q> M4 getOffsetMatrix(
	113	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	114
	115	return (M4) m_offsetMatrix;
	116	}
	117
	118
	119	/**
	120	* Name of the bone.
	121	*/
	122	private String m_name;
	123
	124
	125	/**
	126	* Bone weights.
	127	*/
	128	private final List<AiBoneWeight> m_boneWeights =
	129	new ArrayList<AiBoneWeight>();
	130
	131
	132	/**
	133	* Offset matrix.
	134	*/
	135	private Object m_offsetMatrix;
	136	}

+88

-0

port/jassimp/jassimp/src/jassimp/AiBoneWeight.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* A single influence of a bone on a vertex.
	45	*/
	46	public final class AiBoneWeight {
	47	/**
	48	* Constructor.
	49	*/
	50	AiBoneWeight() {
	51	/* nothing to do */
	52	}
	53
	54
	55	/**
	56	* Index of the vertex which is influenced by the bone.
	57	*
	58	* @return the vertex index
	59	*/
	60	public int getVertexId() {
	61	return m_vertexId;
	62	}
	63
	64
	65	/**
	66	* The strength of the influence in the range (0...1).<p>
	67	*
	68	* The influence from all bones at one vertex amounts to 1
	69	*
	70	* @return the influence
	71	*/
	72	public float getWeight() {
	73	return m_weight;
	74	}
	75
	76
	77	/**
	78	* Vertex index.
	79	*/
	80	private int m_vertexId;
	81
	82
	83	/**
	84	* Influence of bone on vertex.
	85	*/
	86	private float m_weight;
	87	}

+84

-0

port/jassimp/jassimp/src/jassimp/AiBuiltInWrapperProvider.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.nio.ByteBuffer;
	43
	44
	45	/**
	46	* Wrapper provider using jassimp built in types.
	47	*/
	48	public final class AiBuiltInWrapperProvider implements AiWrapperProvider<
	49	AiVector, AiMatrix4f, AiColor, AiNode, AiQuaternion> {
	50
	51	@Override
	52	public AiVector wrapVector3f(ByteBuffer buffer, int offset,
	53	int numComponents) {
	54
	55	return new AiVector(buffer, offset, numComponents);
	56	}
	57
	58
	59	@Override
	60	public AiMatrix4f wrapMatrix4f(float[] data) {
	61	return new AiMatrix4f(data);
	62	}
	63
	64
	65	@Override
	66	public AiColor wrapColor(ByteBuffer buffer, int offset) {
	67	return new AiColor(buffer, offset);
	68	}
	69
	70
	71	@Override
	72	public AiNode wrapSceneNode(Object parent, Object matrix,
	73	int[] meshReferences, String name) {
	74
	75	return new AiNode((AiNode) parent, matrix, meshReferences, name);
	76	}
	77
	78
	79	@Override
	80	public AiQuaternion wrapQuaternion(ByteBuffer buffer, int offset) {
	81	return new AiQuaternion(buffer, offset);
	82	}
	83	}

+303

-0

port/jassimp/jassimp/src/jassimp/AiCamera.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* Helper structure to describe a virtual camera.<p>
	45	*
	46	* Cameras have a representation in the node graph and can be animated.
	47	* An important aspect is that the camera itself is also part of the
	48	* scenegraph. This means, any values such as the look-at vector are not
	49	* absolute, they're <b>relative</b> to the coordinate system defined
	50	* by the node which corresponds to the camera. This allows for camera
	51	* animations. For static cameras parameters like the 'look-at' or 'up' vectors
	52	* are usually specified directly in aiCamera, but beware, they could also
	53	* be encoded in the node transformation. The following (pseudo)code sample
	54	* shows how to do it: <p>
	55	* <code><pre>
	56	* // Get the camera matrix for a camera at a specific time
	57	* // if the node hierarchy for the camera does not contain
	58	* // at least one animated node this is a static computation
	59	* get-camera-matrix (node sceneRoot, camera cam) : matrix
	60	* {
	61	* node cnd = find-node-for-camera(cam)
	62	* matrix cmt = identity()
	63	*
	64	* // as usual - get the absolute camera transformation for this frame
	65	* for each node nd in hierarchy from sceneRoot to cnd
	66	* matrix cur
	67	* if (is-animated(nd))
	68	* cur = eval-animation(nd)
	69	* else cur = nd->mTransformation;
	70	* cmt = mult-matrices( cmt, cur )
	71	* end for
	72	*
	73	* // now multiply with the camera's own local transform
	74	* cam = mult-matrices (cam, get-camera-matrix(cmt) )
	75	* }
	76	* </pre></code>
	77	*
	78	* <b>Note:</b> some file formats (such as 3DS, ASE) export a "target point" -
	79	* the point the camera is looking at (it can even be animated). Assimp
	80	* writes the target point as a subnode of the camera's main node,
	81	* called "<camName>.Target". However this is just additional information
	82	* then the transformation tracks of the camera main node make the
	83	* camera already look in the right direction.
	84	*/
	85	public final class AiCamera {
	86	/**
	87	* Constructor.
	88	*
	89	* @param name name
	90	* @param position position
	91	* @param up up vector
	92	* @param lookAt look-at vector
	93	* @param horizontalFOV field of view
	94	* @param clipNear near clip plane
	95	* @param clipFar far clip plane
	96	* @param aspect aspect ratio
	97	*/
	98	AiCamera(String name, Object position, Object up, Object lookAt,
	99	float horizontalFOV, float clipNear, float clipFar, float aspect) {
	100
	101	m_name = name;
	102	m_position = position;
	103	m_up = up;
	104	m_lookAt = lookAt;
	105	m_horizontalFOV = horizontalFOV;
	106	m_clipNear = clipNear;
	107	m_clipFar = clipFar;
	108	m_aspect = aspect;
	109	}
	110
	111
	112	/**
	113	* Returns the name of the camera.<p>
	114	*
	115	* There must be a node in the scenegraph with the same name.
	116	* This node specifies the position of the camera in the scene
	117	* hierarchy and can be animated.
	118	*/
	119	public String getName() {
	120	return m_name;
	121	}
	122
	123
	124	/**
	125	* Returns the position of the camera.<p>
	126	*
	127	* The returned position is relative to the coordinate space defined by the
	128	* corresponding node.<p>
	129	*
	130	* The default value is 0\|0\|0.<p>
	131	*
	132	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	133	* for details on wrappers).<p>
	134	*
	135	* The built-in behavior is to return a {@link AiVector}.
	136	*
	137	* @param wrapperProvider the wrapper provider (used for type inference)
	138	* @return the position vector
	139	*/
	140	@SuppressWarnings("unchecked")
	141	public <V3, M4, C, N, Q> V3 getPosition(AiWrapperProvider<V3, M4, C, N, Q>
	142	wrapperProvider) {
	143
	144	return (V3) m_position;
	145	}
	146
	147
	148	/**
	149	* Returns the 'Up' - vector of the camera coordinate system.
	150	*
	151	* The returned vector is relative to the coordinate space defined by the
	152	* corresponding node.<p>
	153	*
	154	* The 'right' vector of the camera coordinate system is the cross product
	155	* of the up and lookAt vectors. The default value is 0\|1\|0. The vector
	156	* may be normalized, but it needn't.<p>
	157	*
	158	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	159	* for details on wrappers).<p>
	160	*
	161	* The built-in behavior is to return a {@link AiVector}.
	162	*
	163	* @param wrapperProvider the wrapper provider (used for type inference)
	164	* @return the 'Up' vector
	165	*/
	166	@SuppressWarnings("unchecked")
	167	public <V3, M4, C, N, Q> V3 getUp(AiWrapperProvider<V3, M4, C, N, Q>
	168	wrapperProvider) {
	169
	170	return (V3) m_up;
	171	}
	172
	173
	174	/**
	175	* Returns the 'LookAt' - vector of the camera coordinate system.<p>
	176	*
	177	* The returned vector is relative to the coordinate space defined by the
	178	* corresponding node.<p>
	179	*
	180	* This is the viewing direction of the user. The default value is 0\|0\|1.
	181	* The vector may be normalized, but it needn't.<p>
	182	*
	183	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	184	* for details on wrappers).<p>
	185	*
	186	* The built-in behavior is to return a {@link AiVector}.
	187	*
	188	* @param wrapperProvider the wrapper provider (used for type inference)
	189	* @return the 'LookAt' vector
	190	*/
	191	@SuppressWarnings("unchecked")
	192	public <V3, M4, C, N, Q> V3 getLookAt(AiWrapperProvider<V3, M4, C, N, Q>
	193	wrapperProvider) {
	194
	195	return (V3) m_lookAt;
	196	}
	197
	198
	199	/**
	200	* Returns the half horizontal field of view angle, in radians.<p>
	201	*
	202	* The field of view angle is the angle between the center line of the
	203	* screen and the left or right border. The default value is 1/4PI.
	204	*
	205	* @return the half horizontal field of view angle
	206	*/
	207	public float getHorizontalFOV() {
	208	return m_horizontalFOV;
	209	}
	210
	211
	212	/**
	213	* Returns the distance of the near clipping plane from the camera.<p>
	214	*
	215	* The value may not be 0.f (for arithmetic reasons to prevent a division
	216	* through zero). The default value is 0.1f.
	217	*
	218	* @return the distance of the near clipping plane
	219	*/
	220	public float getClipPlaneNear() {
	221	return m_clipNear;
	222	}
	223
	224
	225	/**
	226	* Returns the distance of the far clipping plane from the camera.<p>
	227	*
	228	* The far clipping plane must, of course, be further away than the
	229	* near clipping plane. The default value is 1000.0f. The ratio
	230	* between the near and the far plane should not be too
	231	* large (between 1000-10000 should be ok) to avoid floating-point
	232	* inaccuracies which could lead to z-fighting.
	233	*
	234	* @return the distance of the far clipping plane
	235	*/
	236	public float getClipPlaneFar() {
	237	return m_clipFar;
	238	}
	239
	240
	241	/**
	242	* Returns the screen aspect ratio.<p>
	243	*
	244	* This is the ration between the width and the height of the
	245	* screen. Typical values are 4/3, 1/2 or 1/1. This value is
	246	* 0 if the aspect ratio is not defined in the source file.
	247	* 0 is also the default value.
	248	*
	249	* @return the screen aspect ratio
	250	*/
	251	public float getAspect() {
	252	return m_aspect;
	253	}
	254
	255
	256	/**
	257	* Name.
	258	*/
	259	private final String m_name;
	260
	261
	262	/**
	263	* Position.
	264	*/
	265	private final Object m_position;
	266
	267
	268	/**
	269	* Up vector.
	270	*/
	271	private final Object m_up;
	272
	273
	274	/**
	275	* Look-At vector.
	276	*/
	277	private final Object m_lookAt;
	278
	279
	280	/**
	281	* FOV.
	282	*/
	283	private final float m_horizontalFOV;
	284
	285
	286	/**
	287	* Near clipping plane.
	288	*/
	289	private final float m_clipNear;
	290
	291
	292	/**
	293	* Far clipping plane.
	294	*/
	295	private final float m_clipFar;
	296
	297
	298	/**
	299	* Aspect ratio.
	300	*/
	301	private final float m_aspect;
	302	}⏎

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port/jassimp/jassimp/src/jassimp/AiColor.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.nio.ByteBuffer;
	43
	44
	45	/**
	46	* Wrapper for colors.<p>
	47	*
	48	* The wrapper is writable, i.e., changes performed via the set-methods will
	49	* modify the underlying mesh.
	50	*/
	51	public final class AiColor {
	52	/**
	53	* Constructor.
	54	*
	55	* @param buffer the buffer to wrap
	56	* @param offset offset into buffer
	57	*/
	58	public AiColor(ByteBuffer buffer, int offset) {
	59	m_buffer = buffer;
	60	m_offset = offset;
	61	}
	62
	63
	64	/**
	65	* Returns the red color component.
	66	*
	67	* @return the red component
	68	*/
	69	public float getRed() {
	70	return m_buffer.getFloat(m_offset);
	71	}
	72
	73
	74	/**
	75	* Returns the green color component.
	76	*
	77	* @return the green component
	78	*/
	79	public float getGreen() {
	80	return m_buffer.getFloat(m_offset + 4);
	81	}
	82
	83
	84	/**
	85	* Returns the blue color component.
	86	*
	87	* @return the blue component
	88	*/
	89	public float getBlue() {
	90	return m_buffer.getFloat(m_offset + 8);
	91	}
	92
	93
	94	/**
	95	* Returns the alpha color component.
	96	*
	97	* @return the alpha component
	98	*/
	99	public float getAlpha() {
	100	return m_buffer.getFloat(m_offset + 12);
	101	}
	102
	103
	104	/**
	105	* Sets the red color component.
	106	*
	107	* @param red the new value
	108	*/
	109	public void setRed(float red) {
	110	m_buffer.putFloat(m_offset, red);
	111	}
	112
	113
	114	/**
	115	* Sets the green color component.
	116	*
	117	* @param green the new value
	118	*/
	119	public void setGreen(float green) {
	120	m_buffer.putFloat(m_offset + 4, green);
	121	}
	122
	123
	124	/**
	125	* Sets the blue color component.
	126	*
	127	* @param blue the new value
	128	*/
	129	public void setBlue(float blue) {
	130	m_buffer.putFloat(m_offset + 8, blue);
	131	}
	132
	133
	134	/**
	135	* Sets the alpha color component.
	136	*
	137	* @param alpha the new value
	138	*/
	139	public void setAlpha(float alpha) {
	140	m_buffer.putFloat(m_offset + 12, alpha);
	141	}
	142
	143
	144	@Override
	145	public String toString() {
	146	return "[" + getRed() + ", " + getGreen() + ", " + getBlue() + ", " +
	147	getAlpha() + "]";
	148	}
	149
	150
	151	/**
	152	* Wrapped buffer.
	153	*/
	154	private final ByteBuffer m_buffer;
	155
	156
	157	/**
	158	* Offset into m_buffer.
	159	*/
	160	private final int m_offset;
	161	}

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port/jassimp/jassimp/src/jassimp/AiConfig.java less more

	0	/*
	1	* $Revision$
	2	* $Date$
	3	*/
	4	package jassimp;
	5
	6
	7	/**
	8	* Configuration interface for assimp importer.<p>
	9	*
	10	* This class is work-in-progress
	11	*/
	12	public class AiConfig {
	13
	14	}

+663

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port/jassimp/jassimp/src/jassimp/AiConfigOptions.java less more

	0	/*
	1	* $Revision$
	2	* $Date$
	3	*/
	4	package jassimp;
	5
	6
	7	/**
	8	* Lists all possible configuration options.<p>
	9	*
	10	* This class is work-in-progress
	11	*/
	12	public enum AiConfigOptions {
	13	/**
	14	* Maximum bone count per mesh for the SplitbyBoneCount step.<p>
	15	*
	16	* Meshes are split until the maximum number of bones is reached. The
	17	* default value is AI_SBBC_DEFAULT_MAX_BONES, which may be altered at
	18	* compile-time. This limit is imposed by the native jassimp library
	19	* and typically is 60.<p>
	20	*
	21	* Property data type: integer.
	22	*/
	23	PP_SBBC_MAX_BONES("PP_SBBC_MAX_BONES"),
	24
	25
	26	/**
	27	* Specifies the maximum angle that may be between two vertex tangents
	28	* that their tangents and bi-tangents are smoothed.<p>
	29	*
	30	* This applies to the CalcTangentSpace-Step. The angle is specified
	31	* in degrees. The maximum value is 175.<p>
	32	*
	33	* Property type: float. Default value: 45 degrees
	34	*/
	35	PP_CT_MAX_SMOOTHING_ANGLE("PP_CT_MAX_SMOOTHING_ANGLE"),
	36
	37
	38	/**
	39	* Source UV channel for tangent space computation.<p>
	40	*
	41	* The specified channel must exist or an error will be raised.<p>
	42	*
	43	* Property type: integer. Default value: 0
	44	*/
	45	PP_CT_TEXTURE_CHANNEL_INDEX("PP_CT_TEXTURE_CHANNEL_INDEX"),
	46
	47
	48	/**
	49	* Specifies the maximum angle that may be between two face normals
	50	* at the same vertex position that their are smoothed together.<p>
	51	*
	52	* Sometimes referred to as 'crease angle'. This applies to the
	53	* GenSmoothNormals-Step. The angle is specified in degrees, so 180 is PI.
	54	* The default value is 175 degrees (all vertex normals are smoothed). The
	55	* maximum value is 175, too.<p>
	56	*
	57	* Property type: float.<p>
	58	*
	59	* Warning: setting this option may cause a severe loss of performance. The
	60	* performance is unaffected if the {@link #CONFIG_FAVOUR_SPEED} flag is
	61	* set but the output quality may be reduced.
	62	*/
	63	PP_GSN_MAX_SMOOTHING_ANGLE("PP_GSN_MAX_SMOOTHING_ANGLE"),
	64
	65
	66	/**
	67	* Sets the colormap (= palette) to be used to decode embedded textures in
	68	* MDL (Quake or 3DGS) files.<p>
	69	*
	70	* This must be a valid path to a file. The file is 768 (256*3) bytes
	71	* large and contains RGB triplets for each of the 256 palette entries.
	72	* The default value is colormap.lmp. If the file is not found,
	73	* a default palette (from Quake 1) is used.<p>
	74	*
	75	* Property type: string.
	76	*/
	77	IMPORT_MDL_COLORMAP("IMPORT_MDL_COLORMAP"),
	78
	79
	80	/**
	81	* Configures the #aiProcess_RemoveRedundantMaterials step to keep
	82	* materials matching a name in a given list.<p>
	83	*
	84	* This is a list of 1 to n strings, ' ' serves as delimiter character.
	85	* Identifiers containing whitespaces must be enclosed in single
	86	* quotation marks. For example:<tt>
	87	* "keep-me and_me_to anotherMaterialToBeKept \'name with whitespace\'"</tt>.
	88	* If a material matches on of these names, it will not be modified or
	89	* removed by the postprocessing step nor will other materials be replaced
	90	* by a reference to it.<p>
	91	*
	92	* This option might be useful if you are using some magic material names
	93	* to pass additional semantics through the content pipeline. This ensures
	94	* they won't be optimized away, but a general optimization is still
	95	* performed for materials not contained in the list.<p>
	96	*
	97	* Property type: String. Default value: n/a<p>
	98	*
	99	* <b>Note:</b>Linefeeds, tabs or carriage returns are treated as
	100	* whitespace. Material names are case sensitive.
	101	*/
	102	PP_RRM_EXCLUDE_LIST("PP_RRM_EXCLUDE_LIST"),
	103
	104
	105	/**
	106	* Configures the {@link AiPostProcessSteps#PRE_TRANSFORM_VERTICES} step
	107	* to keep the scene hierarchy. Meshes are moved to worldspace, but no
	108	* optimization is performed (read: meshes with equal materials are not
	109	* joined. The total number of meshes won't change).<p>
	110	*
	111	* This option could be of use for you if the scene hierarchy contains
	112	* important additional information which you intend to parse.
	113	* For rendering, you can still render all meshes in the scene without
	114	* any transformations.<p>
	115	*
	116	* Property type: bool. Default value: false.
	117	*/
	118	PP_PTV_KEEP_HIERARCHY("PP_PTV_KEEP_HIERARCHY"),
	119
	120
	121	/**
	122	* Configures the {@link AiPostProcessSteps#PRE_TRANSFORM_VERTICES} step
	123	* to normalize all vertex components into the [-1,1] range.<p>
	124	*
	125	* That is, a bounding box for the whole scene is computed, the maximum
	126	* component is taken and all meshes are scaled appropriately (uniformly
	127	* of course!). This might be useful if you don't know the spatial
	128	* dimension of the input data.<p>
	129	*
	130	* Property type: bool. Default value: false.
	131	*/
	132	PP_PTV_NORMALIZE("PP_PTV_NORMALIZE"),
	133
	134
	135	/**
	136	* Configures the {@link AiPostProcessSteps#FIND_DEGENERATES} step to
	137	* remove degenerated primitives from the import - immediately.<p>
	138	*
	139	* The default behaviour converts degenerated triangles to lines and
	140	* degenerated lines to points. See the documentation to the
	141	* {@link AiPostProcessSteps#FIND_DEGENERATES} step for a detailed example
	142	* of the various ways to get rid of these lines and points if you don't
	143	* want them.<p>
	144	*
	145	* Property type: bool. Default value: false.
	146	*/
	147	PP_FD_REMOVE("PP_FD_REMOVE")
	148
	149
	150	// // ---------------------------------------------------------------------------
	151	// /** @brief Configures the #aiProcess_OptimizeGraph step to preserve nodes
	152	// * matching a name in a given list.
	153	// *
	154	// * This is a list of 1 to n strings, ' ' serves as delimiter character.
	155	// * Identifiers containing whitespaces must be enclosed in single
	156	// * quotation marks. For example:<tt>
	157	// * "keep-me and_me_to anotherNodeToBeKept \'name with whitespace\'"</tt>.
	158	// * If a node matches on of these names, it will not be modified or
	159	// * removed by the postprocessing step.<br>
	160	// * This option might be useful if you are using some magic node names
	161	// * to pass additional semantics through the content pipeline. This ensures
	162	// * they won't be optimized away, but a general optimization is still
	163	// * performed for nodes not contained in the list.
	164	// * Property type: String. Default value: n/a
	165	// * @note Linefeeds, tabs or carriage returns are treated as whitespace.
	166	// * Node names are case sensitive.
	167	// */
	168	// #define AI_CONFIG_PP_OG_EXCLUDE_LIST \
	169	// "PP_OG_EXCLUDE_LIST"
	170	//
	171	// // ---------------------------------------------------------------------------
	172	// /** @brief Set the maximum number of triangles in a mesh.
	173	// *
	174	// * This is used by the "SplitLargeMeshes" PostProcess-Step to determine
	175	// * whether a mesh must be split or not.
	176	// * @note The default value is AI_SLM_DEFAULT_MAX_TRIANGLES
	177	// * Property type: integer.
	178	// */
	179	// #define AI_CONFIG_PP_SLM_TRIANGLE_LIMIT \
	180	// "PP_SLM_TRIANGLE_LIMIT"
	181	//
	182	// // default value for AI_CONFIG_PP_SLM_TRIANGLE_LIMIT
	183	// #if (!defined AI_SLM_DEFAULT_MAX_TRIANGLES)
	184	// # define AI_SLM_DEFAULT_MAX_TRIANGLES 1000000
	185	// #endif
	186	//
	187	// // ---------------------------------------------------------------------------
	188	// /** @brief Set the maximum number of vertices in a mesh.
	189	// *
	190	// * This is used by the "SplitLargeMeshes" PostProcess-Step to determine
	191	// * whether a mesh must be split or not.
	192	// * @note The default value is AI_SLM_DEFAULT_MAX_VERTICES
	193	// * Property type: integer.
	194	// */
	195	// #define AI_CONFIG_PP_SLM_VERTEX_LIMIT \
	196	// "PP_SLM_VERTEX_LIMIT"
	197	//
	198	// // default value for AI_CONFIG_PP_SLM_VERTEX_LIMIT
	199	// #if (!defined AI_SLM_DEFAULT_MAX_VERTICES)
	200	// # define AI_SLM_DEFAULT_MAX_VERTICES 1000000
	201	// #endif
	202	//
	203	// // ---------------------------------------------------------------------------
	204	// /** @brief Set the maximum number of bones affecting a single vertex
	205	// *
	206	// * This is used by the #aiProcess_LimitBoneWeights PostProcess-Step.
	207	// * @note The default value is AI_LBW_MAX_WEIGHTS
	208	// * Property type: integer.*/
	209	// #define AI_CONFIG_PP_LBW_MAX_WEIGHTS \
	210	// "PP_LBW_MAX_WEIGHTS"
	211	//
	212	// // default value for AI_CONFIG_PP_LBW_MAX_WEIGHTS
	213	// #if (!defined AI_LMW_MAX_WEIGHTS)
	214	// # define AI_LMW_MAX_WEIGHTS 0x4
	215	// #endif // !! AI_LMW_MAX_WEIGHTS
	216	//
	217	// // ---------------------------------------------------------------------------
	218	// /** @brief Lower the deboning threshold in order to remove more bones.
	219	// *
	220	// * This is used by the #aiProcess_Debone PostProcess-Step.
	221	// * @note The default value is AI_DEBONE_THRESHOLD
	222	// * Property type: float.*/
	223	// #define AI_CONFIG_PP_DB_THRESHOLD \
	224	// "PP_DB_THRESHOLD"
	225	//
	226	// // default value for AI_CONFIG_PP_LBW_MAX_WEIGHTS
	227	// #if (!defined AI_DEBONE_THRESHOLD)
	228	// # define AI_DEBONE_THRESHOLD 1.0f
	229	// #endif // !! AI_DEBONE_THRESHOLD
	230	//
	231	// // ---------------------------------------------------------------------------
	232	// /** @brief Require all bones qualify for deboning before removing any
	233	// *
	234	// * This is used by the #aiProcess_Debone PostProcess-Step.
	235	// * @note The default value is 0
	236	// * Property type: bool.*/
	237	// #define AI_CONFIG_PP_DB_ALL_OR_NONE \
	238	// "PP_DB_ALL_OR_NONE"
	239	//
	240	// /** @brief Default value for the #AI_CONFIG_PP_ICL_PTCACHE_SIZE property
	241	// */
	242	// #ifndef PP_ICL_PTCACHE_SIZE
	243	// # define PP_ICL_PTCACHE_SIZE 12
	244	// #endif
	245	//
	246	// // ---------------------------------------------------------------------------
	247	// /** @brief Set the size of the post-transform vertex cache to optimize the
	248	// * vertices for. This configures the #aiProcess_ImproveCacheLocality step.
	249	// *
	250	// * The size is given in vertices. Of course you can't know how the vertex
	251	// * format will exactly look like after the import returns, but you can still
	252	// * guess what your meshes will probably have.
	253	// * @note The default value is #PP_ICL_PTCACHE_SIZE. That results in slight
	254	// * performance improvements for most nVidia/AMD cards since 2002.
	255	// * Property type: integer.
	256	// */
	257	// #define AI_CONFIG_PP_ICL_PTCACHE_SIZE "PP_ICL_PTCACHE_SIZE"
	258	//
	259	// // ---------------------------------------------------------------------------
	260	// /** @brief Enumerates components of the aiScene and aiMesh data structures
	261	// * that can be excluded from the import using the #aiPrpcess_RemoveComponent step.
	262	// *
	263	// * See the documentation to #aiProcess_RemoveComponent for more details.
	264	// */
	265	// enum aiComponent
	266	// {
	267	// /** Normal vectors */
	268	// #ifdef SWIG
	269	// aiComponent_NORMALS = 0x2,
	270	// #else
	271	// aiComponent_NORMALS = 0x2u,
	272	// #endif
	273	//
	274	// /** Tangents and bitangents go always together ... */
	275	// #ifdef SWIG
	276	// aiComponent_TANGENTS_AND_BITANGENTS = 0x4,
	277	// #else
	278	// aiComponent_TANGENTS_AND_BITANGENTS = 0x4u,
	279	// #endif
	280	//
	281	// /** ALL color sets
	282	// * Use aiComponent_COLORn(N) to specify the N'th set */
	283	// aiComponent_COLORS = 0x8,
	284	//
	285	// /** ALL texture UV sets
	286	// * aiComponent_TEXCOORDn(N) to specify the N'th set */
	287	// aiComponent_TEXCOORDS = 0x10,
	288	//
	289	// /** Removes all bone weights from all meshes.
	290	// * The scenegraph nodes corresponding to the bones are NOT removed.
	291	// * use the #aiProcess_OptimizeGraph step to do this */
	292	// aiComponent_BONEWEIGHTS = 0x20,
	293	//
	294	// /** Removes all node animations (aiScene::mAnimations).
	295	// * The corresponding scenegraph nodes are NOT removed.
	296	// * use the #aiProcess_OptimizeGraph step to do this */
	297	// aiComponent_ANIMATIONS = 0x40,
	298	//
	299	// /** Removes all embedded textures (aiScene::mTextures) */
	300	// aiComponent_TEXTURES = 0x80,
	301	//
	302	// /** Removes all light sources (aiScene::mLights).
	303	// * The corresponding scenegraph nodes are NOT removed.
	304	// * use the #aiProcess_OptimizeGraph step to do this */
	305	// aiComponent_LIGHTS = 0x100,
	306	//
	307	// /** Removes all light sources (aiScene::mCameras).
	308	// * The corresponding scenegraph nodes are NOT removed.
	309	// * use the #aiProcess_OptimizeGraph step to do this */
	310	// aiComponent_CAMERAS = 0x200,
	311	//
	312	// /** Removes all meshes (aiScene::mMeshes). */
	313	// aiComponent_MESHES = 0x400,
	314	//
	315	// /** Removes all materials. One default material will
	316	// * be generated, so aiScene::mNumMaterials will be 1. */
	317	// aiComponent_MATERIALS = 0x800,
	318	//
	319	//
	320	// /** This value is not used. It is just there to force the
	321	// * compiler to map this enum to a 32 Bit integer. */
	322	// #ifndef SWIG
	323	// _aiComponent_Force32Bit = 0x9fffffff
	324	// #endif
	325	// };
	326	//
	327	// // Remove a specific color channel 'n'
	328	// #define aiComponent_COLORSn(n) (1u << (n+20u))
	329	//
	330	// // Remove a specific UV channel 'n'
	331	// #define aiComponent_TEXCOORDSn(n) (1u << (n+25u))
	332	//
	333	// // ---------------------------------------------------------------------------
	334	// /** @brief Input parameter to the #aiProcess_RemoveComponent step:
	335	// * Specifies the parts of the data structure to be removed.
	336	// *
	337	// * See the documentation to this step for further details. The property
	338	// * is expected to be an integer, a bitwise combination of the
	339	// * #aiComponent flags defined above in this header. The default
	340	// * value is 0. Important: if no valid mesh is remaining after the
	341	// * step has been executed (e.g you thought it was funny to specify ALL
	342	// * of the flags defined above) the import FAILS. Mainly because there is
	343	// * no data to work on anymore ...
	344	// */
	345	// #define AI_CONFIG_PP_RVC_FLAGS \
	346	// "PP_RVC_FLAGS"
	347	//
	348	// // ---------------------------------------------------------------------------
	349	// /** @brief Input parameter to the #aiProcess_SortByPType step:
	350	// * Specifies which primitive types are removed by the step.
	351	// *
	352	// * This is a bitwise combination of the aiPrimitiveType flags.
	353	// * Specifying all of them is illegal, of course. A typical use would
	354	// * be to exclude all line and point meshes from the import. This
	355	// * is an integer property, its default value is 0.
	356	// */
	357	// #define AI_CONFIG_PP_SBP_REMOVE \
	358	// "PP_SBP_REMOVE"
	359	//
	360	// // ---------------------------------------------------------------------------
	361	// /** @brief Input parameter to the #aiProcess_FindInvalidData step:
	362	// * Specifies the floating-point accuracy for animation values. The step
	363	// * checks for animation tracks where all frame values are absolutely equal
	364	// * and removes them. This tweakable controls the epsilon for floating-point
	365	// * comparisons - two keys are considered equal if the invariant
	366	// * abs(n0-n1)>epsilon holds true for all vector respectively quaternion
	367	// * components. The default value is 0.f - comparisons are exact then.
	368	// */
	369	// #define AI_CONFIG_PP_FID_ANIM_ACCURACY \
	370	// "PP_FID_ANIM_ACCURACY"
	371	//
	372	//
	373	// // TransformUVCoords evaluates UV scalings
	374	// #define AI_UVTRAFO_SCALING 0x1
	375	//
	376	// // TransformUVCoords evaluates UV rotations
	377	// #define AI_UVTRAFO_ROTATION 0x2
	378	//
	379	// // TransformUVCoords evaluates UV translation
	380	// #define AI_UVTRAFO_TRANSLATION 0x4
	381	//
	382	// // Everything baked together -> default value
	383	// #define AI_UVTRAFO_ALL (AI_UVTRAFO_SCALING \| AI_UVTRAFO_ROTATION \| AI_UVTRAFO_TRANSLATION)
	384	//
	385	// // ---------------------------------------------------------------------------
	386	// /** @brief Input parameter to the #aiProcess_TransformUVCoords step:
	387	// * Specifies which UV transformations are evaluated.
	388	// *
	389	// * This is a bitwise combination of the AI_UVTRAFO_XXX flags (integer
	390	// * property, of course). By default all transformations are enabled
	391	// * (AI_UVTRAFO_ALL).
	392	// */
	393	// #define AI_CONFIG_PP_TUV_EVALUATE \
	394	// "PP_TUV_EVALUATE"
	395	//
	396	// // ---------------------------------------------------------------------------
	397	// /** @brief A hint to assimp to favour speed against import quality.
	398	// *
	399	// * Enabling this option may result in faster loading, but it needn't.
	400	// * It represents just a hint to loaders and post-processing steps to use
	401	// * faster code paths, if possible.
	402	// * This property is expected to be an integer, != 0 stands for true.
	403	// * The default value is 0.
	404	// */
	405	// #define AI_CONFIG_FAVOUR_SPEED \
	406	// "FAVOUR_SPEED"
	407	//
	408	//
	409	// // ###########################################################################
	410	// // IMPORTER SETTINGS
	411	// // Various stuff to fine-tune the behaviour of specific importer plugins.
	412	// // ###########################################################################
	413	//
	414	//
	415	// // ---------------------------------------------------------------------------
	416	// /** @brief Set the vertex animation keyframe to be imported
	417	// *
	418	// * ASSIMP does not support vertex keyframes (only bone animation is supported).
	419	// * The library reads only one frame of models with vertex animations.
	420	// * By default this is the first frame.
	421	// * \note The default value is 0. This option applies to all importers.
	422	// * However, it is also possible to override the global setting
	423	// * for a specific loader. You can use the AI_CONFIG_IMPORT_XXX_KEYFRAME
	424	// * options (where XXX is a placeholder for the file format for which you
	425	// * want to override the global setting).
	426	// * Property type: integer.
	427	// */
	428	// #define AI_CONFIG_IMPORT_GLOBAL_KEYFRAME "IMPORT_GLOBAL_KEYFRAME"
	429	//
	430	// #define AI_CONFIG_IMPORT_MD3_KEYFRAME "IMPORT_MD3_KEYFRAME"
	431	// #define AI_CONFIG_IMPORT_MD2_KEYFRAME "IMPORT_MD2_KEYFRAME"
	432	// #define AI_CONFIG_IMPORT_MDL_KEYFRAME "IMPORT_MDL_KEYFRAME"
	433	// #define AI_CONFIG_IMPORT_MDC_KEYFRAME "IMPORT_MDC_KEYFRAME"
	434	// #define AI_CONFIG_IMPORT_SMD_KEYFRAME "IMPORT_SMD_KEYFRAME"
	435	// #define AI_CONFIG_IMPORT_UNREAL_KEYFRAME "IMPORT_UNREAL_KEYFRAME"
	436	//
	437	//
	438	// // ---------------------------------------------------------------------------
	439	// /** @brief Configures the AC loader to collect all surfaces which have the
	440	// * "Backface cull" flag set in separate meshes.
	441	// *
	442	// * Property type: bool. Default value: true.
	443	// */
	444	// #define AI_CONFIG_IMPORT_AC_SEPARATE_BFCULL \
	445	// "IMPORT_AC_SEPARATE_BFCULL"
	446	//
	447	// // ---------------------------------------------------------------------------
	448	// /** @brief Configures whether the AC loader evaluates subdivision surfaces (
	449	// * indicated by the presence of the 'subdiv' attribute in the file). By
	450	// * default, Assimp performs the subdivision using the standard
	451	// * Catmull-Clark algorithm
	452	// *
	453	// * * Property type: bool. Default value: true.
	454	// */
	455	// #define AI_CONFIG_IMPORT_AC_EVAL_SUBDIVISION \
	456	// "IMPORT_AC_EVAL_SUBDIVISION"
	457	//
	458	// // ---------------------------------------------------------------------------
	459	// /** @brief Configures the UNREAL 3D loader to separate faces with different
	460	// * surface flags (e.g. two-sided vs. single-sided).
	461	// *
	462	// * * Property type: bool. Default value: true.
	463	// */
	464	// #define AI_CONFIG_IMPORT_UNREAL_HANDLE_FLAGS \
	465	// "UNREAL_HANDLE_FLAGS"
	466	//
	467	// // ---------------------------------------------------------------------------
	468	// /** @brief Configures the terragen import plugin to compute uv's for
	469	// * terrains, if not given. Furthermore a default texture is assigned.
	470	// *
	471	// * UV coordinates for terrains are so simple to compute that you'll usually
	472	// * want to compute them on your own, if you need them. This option is intended
	473	// * for model viewers which want to offer an easy way to apply textures to
	474	// * terrains.
	475	// * * Property type: bool. Default value: false.
	476	// */
	477	// #define AI_CONFIG_IMPORT_TER_MAKE_UVS \
	478	// "IMPORT_TER_MAKE_UVS"
	479	//
	480	// // ---------------------------------------------------------------------------
	481	// /** @brief Configures the ASE loader to always reconstruct normal vectors
	482	// * basing on the smoothing groups loaded from the file.
	483	// *
	484	// * Some ASE files have carry invalid normals, other don't.
	485	// * * Property type: bool. Default value: true.
	486	// */
	487	// #define AI_CONFIG_IMPORT_ASE_RECONSTRUCT_NORMALS \
	488	// "IMPORT_ASE_RECONSTRUCT_NORMALS"
	489	//
	490	// // ---------------------------------------------------------------------------
	491	// /** @brief Configures the M3D loader to detect and process multi-part
	492	// * Quake player models.
	493	// *
	494	// * These models usually consist of 3 files, lower.md3, upper.md3 and
	495	// * head.md3. If this property is set to true, Assimp will try to load and
	496	// * combine all three files if one of them is loaded.
	497	// * Property type: bool. Default value: true.
	498	// */
	499	// #define AI_CONFIG_IMPORT_MD3_HANDLE_MULTIPART \
	500	// "IMPORT_MD3_HANDLE_MULTIPART"
	501	//
	502	// // ---------------------------------------------------------------------------
	503	// /** @brief Tells the MD3 loader which skin files to load.
	504	// *
	505	// * When loading MD3 files, Assimp checks whether a file
	506	// * <md3_file_name>_<skin_name>.skin is existing. These files are used by
	507	// * Quake III to be able to assign different skins (e.g. red and blue team)
	508	// * to models. 'default', 'red', 'blue' are typical skin names.
	509	// * Property type: String. Default value: "default".
	510	// */
	511	// #define AI_CONFIG_IMPORT_MD3_SKIN_NAME \
	512	// "IMPORT_MD3_SKIN_NAME"
	513	//
	514	// // ---------------------------------------------------------------------------
	515	// /** @brief Specify the Quake 3 shader file to be used for a particular
	516	// * MD3 file. This can also be a search path.
	517	// *
	518	// * By default Assimp's behaviour is as follows: If a MD3 file
	519	// * <tt><any_path>/models/<any_q3_subdir>/<model_name>/<file_name>.md3</tt> is
	520	// * loaded, the library tries to locate the corresponding shader file in
	521	// * <tt><any_path>/scripts/<model_name>.shader</tt>. This property overrides this
	522	// * behaviour. It can either specify a full path to the shader to be loaded
	523	// * or alternatively the path (relative or absolute) to the directory where
	524	// * the shaders for all MD3s to be loaded reside. Assimp attempts to open
	525	// * <tt><dir>/<model_name>.shader</tt> first, <tt><dir>/<file_name>.shader</tt>
	526	// * is the fallback file. Note that <dir> should have a terminal (back)slash.
	527	// * Property type: String. Default value: n/a.
	528	// */
	529	// #define AI_CONFIG_IMPORT_MD3_SHADER_SRC \
	530	// "IMPORT_MD3_SHADER_SRC"
	531	//
	532	// // ---------------------------------------------------------------------------
	533	// /** @brief Configures the LWO loader to load just one layer from the model.
	534	// *
	535	// * LWO files consist of layers and in some cases it could be useful to load
	536	// * only one of them. This property can be either a string - which specifies
	537	// * the name of the layer - or an integer - the index of the layer. If the
	538	// * property is not set the whole LWO model is loaded. Loading fails if the
	539	// * requested layer is not available. The layer index is zero-based and the
	540	// * layer name may not be empty.<br>
	541	// * Property type: Integer. Default value: all layers are loaded.
	542	// */
	543	// #define AI_CONFIG_IMPORT_LWO_ONE_LAYER_ONLY \
	544	// "IMPORT_LWO_ONE_LAYER_ONLY"
	545	//
	546	// // ---------------------------------------------------------------------------
	547	// /** @brief Configures the MD5 loader to not load the MD5ANIM file for
	548	// * a MD5MESH file automatically.
	549	// *
	550	// * The default strategy is to look for a file with the same name but the
	551	// * MD5ANIM extension in the same directory. If it is found, it is loaded
	552	// * and combined with the MD5MESH file. This configuration option can be
	553	// * used to disable this behaviour.
	554	// *
	555	// * * Property type: bool. Default value: false.
	556	// */
	557	// #define AI_CONFIG_IMPORT_MD5_NO_ANIM_AUTOLOAD \
	558	// "IMPORT_MD5_NO_ANIM_AUTOLOAD"
	559	//
	560	// // ---------------------------------------------------------------------------
	561	// /** @brief Defines the begin of the time range for which the LWS loader
	562	// * evaluates animations and computes aiNodeAnim's.
	563	// *
	564	// * Assimp provides full conversion of LightWave's envelope system, including
	565	// * pre and post conditions. The loader computes linearly subsampled animation
	566	// * chanels with the frame rate given in the LWS file. This property defines
	567	// * the start time. Note: animation channels are only generated if a node
	568	// * has at least one envelope with more tan one key assigned. This property.
	569	// * is given in frames, '0' is the first frame. By default, if this property
	570	// * is not set, the importer takes the animation start from the input LWS
	571	// * file ('FirstFrame' line)<br>
	572	// * Property type: Integer. Default value: taken from file.
	573	// *
	574	// * @see AI_CONFIG_IMPORT_LWS_ANIM_END - end of the imported time range
	575	// */
	576	// #define AI_CONFIG_IMPORT_LWS_ANIM_START \
	577	// "IMPORT_LWS_ANIM_START"
	578	// #define AI_CONFIG_IMPORT_LWS_ANIM_END \
	579	// "IMPORT_LWS_ANIM_END"
	580	//
	581	// // ---------------------------------------------------------------------------
	582	// /** @brief Defines the output frame rate of the IRR loader.
	583	// *
	584	// * IRR animations are difficult to convert for Assimp and there will
	585	// * always be a loss of quality. This setting defines how many keys per second
	586	// * are returned by the converter.<br>
	587	// * Property type: integer. Default value: 100
	588	// */
	589	// #define AI_CONFIG_IMPORT_IRR_ANIM_FPS \
	590	// "IMPORT_IRR_ANIM_FPS"
	591	//
	592	//
	593	// // ---------------------------------------------------------------------------
	594	// /** @brief Ogre Importer will try to load this Materialfile.
	595	// *
	596	// * Ogre Meshes contain only the MaterialName, not the MaterialFile. If there
	597	// * is no material file with the same name as the material, Ogre Importer will
	598	// * try to load this file and search the material in it.
	599	// * <br>
	600	// * Property type: String. Default value: guessed.
	601	// */
	602	// #define AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE "IMPORT_OGRE_MATERIAL_FILE"
	603	//
	604	//
	605	// // ---------------------------------------------------------------------------
	606	// /** @brief Ogre Importer detect the texture usage from its filename
	607	// *
	608	// * Normally, a texture is loaded as a colormap, if no target is specified in the
	609	// * materialfile. Is this switch is enabled, texture names ending with _n, _l, _s
	610	// * are used as normalmaps, lightmaps or specularmaps.
	611	// * <br>
	612	// * Property type: Bool. Default value: false.
	613	// */
	614	// #define AI_CONFIG_IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME "IMPORT_OGRE_TEXTURETYPE_FROM_FILENAME"
	615	//
	616	//
	617	//
	618	// // ---------------------------------------------------------------------------
	619	// /** @brief Specifies whether the IFC loader skips over IfcSpace elements.
	620	// *
	621	// * IfcSpace elements (and their geometric representations) are used to
	622	// * represent, well, free space in a building storey.<br>
	623	// * Property type: Bool. Default value: true.
	624	// */
	625	// #define AI_CONFIG_IMPORT_IFC_SKIP_SPACE_REPRESENTATIONS "IMPORT_IFC_SKIP_SPACE_REPRESENTATIONS"
	626	//
	627	//
	628	// // ---------------------------------------------------------------------------
	629	// /** @brief Specifies whether the IFC loader skips over
	630	// * shape representations of type 'Curve2D'.
	631	// *
	632	// * A lot of files contain both a faceted mesh representation and a outline
	633	// * with a presentation type of 'Curve2D'. Currently Assimp doesn't convert those,
	634	// * so turning this option off just clutters the log with errors.<br>
	635	// * Property type: Bool. Default value: true.
	636	// */
	637	// #define AI_CONFIG_IMPORT_IFC_SKIP_CURVE_REPRESENTATIONS "IMPORT_IFC_SKIP_CURVE_REPRESENTATIONS"
	638	//
	639	// // ---------------------------------------------------------------------------
	640	// /** @brief Specifies whether the IFC loader will use its own, custom triangulation
	641	// * algorithm to triangulate wall and floor meshes.
	642	// *
	643	// * If this property is set to false, walls will be either triangulated by
	644	// * #aiProcess_Triangulate or will be passed through as huge polygons with
	645	// * faked holes (i.e. holes that are connected with the outer boundary using
	646	// * a dummy edge). It is highly recommended to set this property to true
	647	// * if you want triangulated data because #aiProcess_Triangulate is known to
	648	// * have problems with the kind of polygons that the IFC loader spits out for
	649	// * complicated meshes.
	650	// * Property type: Bool. Default value: true.
	651	// */
	652	// #define AI_CONFIG_IMPORT_IFC_CUSTOM_TRIANGULATION "IMPORT_IFC_CUSTOM_TRIANGULATION"
	653	//
	654	;
	655
	656	private AiConfigOptions(String name) {
	657	m_name = name;
	658	}
	659
	660
	661	private final String m_name;
	662	}

+387

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port/jassimp/jassimp/src/jassimp/AiLight.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* Describes a light source.<p>
	45	*
	46	* Assimp supports multiple sorts of light sources, including
	47	* directional, point and spot lights. All of them are defined with just
	48	* a single structure and distinguished by their parameters.
	49	* Note - some file formats (such as 3DS, ASE) export a "target point" -
	50	* the point a spot light is looking at (it can even be animated). Assimp
	51	* writes the target point as a subnode of a spotlights's main node,
	52	* called "<spotName>.Target". However, this is just additional
	53	* information then, the transformation tracks of the main node make the
	54	* spot light already point in the right direction.
	55	*/
	56	public final class AiLight {
	57	/**
	58	* Constructor.
	59	*
	60	* @param name
	61	* @param type
	62	* @param position
	63	* @param direction
	64	* @param attenuationConstant
	65	* @param attenuationLinear
	66	* @param attenuationQuadratic
	67	* @param diffuse
	68	* @param specular
	69	* @param ambient
	70	* @param innerCone
	71	* @param outerCone
	72	*/
	73	AiLight(String name, int type, Object position, Object direction,
	74	float attenuationConstant, float attenuationLinear,
	75	float attenuationQuadratic, Object diffuse, Object specular,
	76	Object ambient, float innerCone, float outerCone) {
	77
	78	m_name = name;
	79	m_type = AiLightType.fromRawValue(type);
	80	m_position = position;
	81	m_direction = direction;
	82	m_attenuationConstant = attenuationConstant;
	83	m_attenuationLinear = attenuationLinear;
	84	m_attenuationQuadratic = attenuationQuadratic;
	85	m_diffuse = diffuse;
	86	m_specular = specular;
	87	m_ambient = ambient;
	88	m_innerCone = innerCone;
	89	m_outerCone = outerCone;
	90	}
	91
	92
	93	/**
	94	* Returns the name of the light source.<p>
	95	*
	96	* There must be a node in the scenegraph with the same name.
	97	* This node specifies the position of the light in the scene
	98	* hierarchy and can be animated.
	99	*
	100	* @return the name
	101	*/
	102	public String getName() {
	103	return m_name;
	104	}
	105
	106
	107	/**
	108	* Returns The type of the light source.
	109	*
	110	* @return the type
	111	*/
	112	public AiLightType getType() {
	113	return m_type;
	114	}
	115
	116
	117	/**
	118	* Returns the position of the light.<p>
	119	*
	120	* The position is relative to the transformation of the scene graph node
	121	* corresponding to the light. The position is undefined for directional
	122	* lights.<p>
	123	*
	124	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	125	* for details on wrappers).<p>
	126	*
	127	* The built in behavior is to return an {@link AiVector}.
	128	*
	129	*
	130	* @param wrapperProvider the wrapper provider (used for type inference)
	131	*
	132	* @return the position
	133	*/
	134	@SuppressWarnings("unchecked")
	135	public <V3, M4, C, N, Q> V3 getPosition(AiWrapperProvider<V3, M4, C, N, Q>
	136	wrapperProvider) {
	137
	138	return (V3) m_position;
	139	}
	140
	141
	142	/**
	143	* Returns the direction of the light.<p>
	144	*
	145	* The direction is relative to the transformation of the scene graph node
	146	* corresponding to the light. The direction is undefined for point lights.
	147	* The vector may be normalized, but it needn't..<p>
	148	*
	149	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	150	* for details on wrappers).<p>
	151	*
	152	* The built in behavior is to return an {@link AiVector}.
	153	*
	154	* @param wrapperProvider the wrapper provider (used for type inference)
	155	* @return the position
	156	*/
	157	@SuppressWarnings("unchecked")
	158	public <V3, M4, C, N, Q> V3 getDirection(AiWrapperProvider<V3, M4, C, N, Q>
	159	wrapperProvider) {
	160
	161	return (V3) m_direction;
	162	}
	163
	164
	165	/**
	166	* Constant light attenuation factor.<p>
	167	*
	168	* The intensity of the light source at a given distance 'd' from
	169	* the light's position is
	170	* <code>Atten = 1/( att0 + att1 * d + att2 * d*d)</code>
	171	* This member corresponds to the att0 variable in the equation.
	172	* Naturally undefined for directional lights.
	173	*
	174	* @return the constant light attenuation factor
	175	*/
	176	public float getAttenuationConstant() {
	177	return m_attenuationConstant;
	178	}
	179
	180
	181	/**
	182	* Linear light attenuation factor.<p>
	183	*
	184	* The intensity of the light source at a given distance 'd' from
	185	* the light's position is
	186	* <code>Atten = 1/( att0 + att1 * d + att2 * d*d)</code>
	187	* This member corresponds to the att1 variable in the equation.
	188	* Naturally undefined for directional lights.
	189	*
	190	* @return the linear light attenuation factor
	191	*/
	192	public float getAttenuationLinear() {
	193	return m_attenuationLinear;
	194	}
	195
	196
	197	/**
	198	* Quadratic light attenuation factor.<p>
	199	*
	200	* The intensity of the light source at a given distance 'd' from
	201	* the light's position is
	202	* <code>Atten = 1/( att0 + att1 * d + att2 * d*d)</code>
	203	* This member corresponds to the att2 variable in the equation.
	204	* Naturally undefined for directional lights.
	205	*
	206	* @return the quadratic light attenuation factor
	207	*/
	208	public float getAttenuationQuadratic() {
	209	return m_attenuationQuadratic;
	210	}
	211
	212
	213	/**
	214	* Diffuse color of the light source.<p>
	215	*
	216	* The diffuse light color is multiplied with the diffuse
	217	* material color to obtain the final color that contributes
	218	* to the diffuse shading term.<p>
	219	*
	220	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	221	* for details on wrappers).<p>
	222	*
	223	* The built in behavior is to return an {@link AiColor}.
	224	*
	225	* @param wrapperProvider the wrapper provider (used for type inference)
	226	* @return the diffuse color (alpha will be 1)
	227	*/
	228	@SuppressWarnings("unchecked")
	229	public <V3, M4, C, N, Q> C getColorDiffuse(
	230	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	231
	232	return (C) m_diffuse;
	233	}
	234
	235
	236	/**
	237	* Specular color of the light source.<p>
	238	*
	239	* The specular light color is multiplied with the specular
	240	* material color to obtain the final color that contributes
	241	* to the specular shading term.<p>
	242	*
	243	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	244	* for details on wrappers).<p>
	245	*
	246	* The built in behavior is to return an {@link AiColor}.
	247	*
	248	* @param wrapperProvider the wrapper provider (used for type inference)
	249	* @return the specular color (alpha will be 1)
	250	*/
	251	@SuppressWarnings("unchecked")
	252	public <V3, M4, C, N, Q> C getColorSpecular(
	253	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	254
	255	return (C) m_specular;
	256	}
	257
	258
	259	/**
	260	* Ambient color of the light source.<p>
	261	*
	262	* The ambient light color is multiplied with the ambient
	263	* material color to obtain the final color that contributes
	264	* to the ambient shading term. Most renderers will ignore
	265	* this value it, is just a remaining of the fixed-function pipeline
	266	* that is still supported by quite many file formats.<p>
	267	*
	268	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	269	* for details on wrappers).<p>
	270	*
	271	* The built in behavior is to return an {@link AiColor}.
	272	*
	273	* @param wrapperProvider the wrapper provider (used for type inference)
	274	* @return the ambient color (alpha will be 1)
	275	*/
	276	@SuppressWarnings("unchecked")
	277	public <V3, M4, C, N, Q> C getColorAmbient(
	278	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	279
	280	return (C) m_ambient;
	281	}
	282
	283
	284	/**
	285	* Inner angle of a spot light's light cone.<p>
	286	*
	287	* The spot light has maximum influence on objects inside this
	288	* angle. The angle is given in radians. It is 2PI for point
	289	* lights and undefined for directional lights.
	290	*
	291	* @return the inner angle
	292	*/
	293	public float getAngleInnerCone() {
	294	return m_innerCone;
	295	}
	296
	297
	298	/**
	299	* Outer angle of a spot light's light cone.<p>
	300	*
	301	* The spot light does not affect objects outside this angle.
	302	* The angle is given in radians. It is 2PI for point lights and
	303	* undefined for directional lights. The outer angle must be
	304	* greater than or equal to the inner angle.
	305	* It is assumed that the application uses a smooth
	306	* interpolation between the inner and the outer cone of the
	307	* spot light.
	308	*
	309	* @return the outer angle
	310	*/
	311	public float getAngleOuterCone() {
	312	return m_outerCone;
	313	}
	314
	315
	316	/**
	317	* Name.
	318	*/
	319	private final String m_name;
	320
	321
	322	/**
	323	* Type.
	324	*/
	325	private final AiLightType m_type;
	326
	327
	328	/**
	329	* Position.
	330	*/
	331	private final Object m_position;
	332
	333
	334	/**
	335	* Direction.
	336	*/
	337	private final Object m_direction;
	338
	339
	340	/**
	341	* Constant attenuation.
	342	*/
	343	private final float m_attenuationConstant;
	344
	345
	346	/**
	347	* Linear attenuation.
	348	*/
	349	private final float m_attenuationLinear;
	350
	351
	352	/**
	353	* Quadratic attenuation.
	354	*/
	355	private final float m_attenuationQuadratic;
	356
	357
	358	/**
	359	* Diffuse color.
	360	*/
	361	private final Object m_diffuse;
	362
	363
	364	/**
	365	* Specular color.
	366	*/
	367	private final Object m_specular;
	368
	369
	370	/**
	371	* Ambient color.
	372	*/
	373	private final Object m_ambient;
	374
	375
	376	/**
	377	* Inner cone of spotlight.
	378	*/
	379	private final float m_innerCone;
	380
	381
	382	/**
	383	* Outer cone of spotlight.
	384	*/
	385	private final float m_outerCone;
	386	}

+112

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port/jassimp/jassimp/src/jassimp/AiLightType.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* List of light types supported by {@link AiLight}.
	45	*/
	46	public enum AiLightType {
	47	/**
	48	* A directional light source.<p>
	49	*
	50	* A directional light has a well-defined direction but is infinitely far
	51	* away. That's quite a good approximation for sun light.
	52	*/
	53	DIRECTIONAL(0x1),
	54
	55
	56	/**
	57	* A point light source.<p>
	58	*
	59	* A point light has a well-defined position in space but no direction -
	60	* it emits light in all directions. A normal bulb is a point light.
	61	*/
	62	POINT(0x2),
	63
	64
	65	/**
	66	* A spot light source.<p>
	67	*
	68	* A spot light emits light in a specific angle. It has a position and a
	69	* direction it is pointing to. A good example for a spot light is a light
	70	* spot in sport arenas.
	71	*/
	72	SPOT(0x3);
	73
	74
	75	/**
	76	* Utility method for converting from c/c++ based integer enums to java
	77	* enums.<p>
	78	*
	79	* This method is intended to be used from JNI and my change based on
	80	* implementation needs.
	81	*
	82	* @param rawValue an integer based enum value (as defined by assimp)
	83	* @return the enum value corresponding to rawValue
	84	*/
	85	static AiLightType fromRawValue(int rawValue) {
	86	for (AiLightType type : AiLightType.values()) {
	87	if (type.m_rawValue == rawValue) {
	88	return type;
	89	}
	90	}
	91
	92	throw new IllegalArgumentException("unexptected raw value: " +
	93	rawValue);
	94	}
	95
	96
	97	/**
	98	* Constructor.
	99	*
	100	* @param rawValue maps java enum to c/c++ integer enum values
	101	*/
	102	private AiLightType(int rawValue) {
	103	m_rawValue = rawValue;
	104	}
	105
	106
	107	/**
	108	* The mapped c/c++ integer enum value.
	109	*/
	110	private final int m_rawValue;
	111	}

+1202

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port/jassimp/jassimp/src/jassimp/AiMaterial.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.nio.ByteBuffer;
	43	import java.nio.ByteOrder;
	44	import java.util.ArrayList;
	45	import java.util.EnumMap;
	46	import java.util.List;
	47	import java.util.Map;
	48	import java.util.Set;
	49
	50
	51	/**
	52	* Data structure for a material.<p>
	53	*
	54	* Depending on the imported scene and scene format, individual properties
	55	* might be present or not. A list of all imported properties can be retrieved
	56	* via {@link #getProperties()}.<p>
	57	*
	58	* This class offers <code>getXXX()</code> for all supported properties. These
	59	* methods are fail-save, i.e., will return a default value when the
	60	* corresponding property is not set. To change the built in default values,
	61	* use the <code>setDefaultXXX()</code> methods.<p>
	62	*
	63	* If your application expects a certain set of properties to be available,
	64	* the {@link #hasProperties(Set)} method can be used to check whether all
	65	* these properties are actually set. If this check fails, you can still
	66	* use this material via the <code>getXXX()</code> methods without special
	67	* error handling code as the implementation guarantees to return default
	68	* values for missing properties. This check will not work on texture related
	69	* properties (i.e., properties starting with <code>TEX_</code>).
	70	*/
	71	public final class AiMaterial {
	72	/**
	73	* Enumerates all supported material properties.
	74	*/
	75	public static enum PropertyKey {
	76	/**
	77	* Name.
	78	*/
	79	NAME("?mat.name", String.class),
	80
	81	/**
	82	* Two-sided flag.
	83	*/
	84	TWO_SIDED("$mat.twosided", Integer.class),
	85
	86	/**
	87	* Shading mode.
	88	*/
	89	SHADING_MODE("$mat.shadingm", AiShadingMode.class),
	90
	91	/**
	92	* Wireframe flag.
	93	*/
	94	WIREFRAME("$mat.wireframe", Integer.class),
	95
	96	/**
	97	* Blend mode.
	98	*/
	99	BLEND_MODE("$mat.blend", AiBlendMode.class),
	100
	101	/**
	102	* Opacity.
	103	*/
	104	OPACITY("$mat.opacity", Float.class),
	105
	106	/**
	107	* Bump scaling.
	108	*/
	109	BUMP_SCALING("$mat.bumpscaling", Float.class),
	110
	111
	112	/**
	113	* Shininess.
	114	*/
	115	SHININESS("$mat.shininess", Float.class),
	116
	117
	118	/**
	119	* Reflectivity.
	120	*/
	121	REFLECTIVITY("$mat.reflectivity", Float.class),
	122
	123
	124	/**
	125	* Shininess strength.
	126	*/
	127	SHININESS_STRENGTH("$mat.shinpercent", Float.class),
	128
	129
	130	/**
	131	* Refract index.
	132	*/
	133	REFRACTI("$mat.refracti", Float.class),
	134
	135
	136	/**
	137	* Diffuse color.
	138	*/
	139	COLOR_DIFFUSE("$clr.diffuse", Object.class),
	140
	141
	142	/**
	143	* Ambient color.
	144	*/
	145	COLOR_AMBIENT("$clr.ambient", Object.class),
	146
	147
	148	/**
	149	* Ambient color.
	150	*/
	151	COLOR_SPECULAR("$clr.specular", Object.class),
	152
	153
	154	/**
	155	* Emissive color.
	156	*/
	157	COLOR_EMISSIVE("$clr.emissive", Object.class),
	158
	159
	160	/**
	161	* Transparent color.
	162	*/
	163	COLOR_TRANSPARENT("$clr.transparent", Object.class),
	164
	165
	166	/**
	167	* Reflective color.
	168	*/
	169	COLOR_REFLECTIVE("$clr.reflective", Object.class),
	170
	171
	172	/**
	173	* Global background image.
	174	*/
	175	GLOBAL_BACKGROUND_IMAGE("?bg.global", String.class),
	176
	177
	178	/**
	179	* Texture file path.
	180	*/
	181	TEX_FILE("$tex.file", String.class),
	182
	183
	184	/**
	185	* Texture uv index.
	186	*/
	187	TEX_UV_INDEX("$tex.uvwsrc", Integer.class),
	188
	189
	190	/**
	191	* Texture blend factor.
	192	*/
	193	TEX_BLEND("$tex.blend", Float.class),
	194
	195
	196	/**
	197	* Texture operation.
	198	*/
	199	TEX_OP("$tex.op", AiTextureOp.class),
	200
	201
	202	/**
	203	* Texture map mode for u axis.
	204	*/
	205	TEX_MAP_MODE_U("$tex.mapmodeu", AiTextureMapMode.class),
	206
	207
	208	/**
	209	* Texture map mode for v axis.
	210	*/
	211	TEX_MAP_MODE_V("$tex.mapmodev", AiTextureMapMode.class),
	212
	213
	214	/**
	215	* Texture map mode for w axis.
	216	*/
	217	TEX_MAP_MODE_W("$tex.mapmodew", AiTextureMapMode.class);
	218
	219	/**
	220	* Constructor.
	221	*
	222	* @param key key name as used by assimp
	223	* @param type key type, used for casts and checks
	224	*/
	225	private PropertyKey(String key, Class<?> type) {
	226	m_key = key;
	227	m_type = type;
	228	}
	229
	230
	231	/**
	232	* Key.
	233	*/
	234	private final String m_key;
	235
	236
	237	/**
	238	* Type.
	239	*/
	240	private final Class<?> m_type;
	241	}
	242
	243
	244	/**
	245	* A very primitive RTTI system for the contents of material properties.
	246	*/
	247	public static enum PropertyType {
	248	/**
	249	* Array of single-precision (32 Bit) floats.
	250	*/
	251	FLOAT(0x1),
	252
	253
	254	/**
	255	* The material property is a string.
	256	*/
	257	STRING(0x3),
	258
	259
	260	/**
	261	* Array of (32 Bit) integers.
	262	*/
	263	INTEGER(0x4),
	264
	265
	266	/**
	267	* Simple binary buffer, content undefined. Not convertible to anything.
	268	*/
	269	BUFFER(0x5);
	270
	271
	272	/**
	273	* Utility method for converting from c/c++ based integer enums to java
	274	* enums.<p>
	275	*
	276	* This method is intended to be used from JNI and my change based on
	277	* implementation needs.
	278	*
	279	* @param rawValue an integer based enum value (as defined by assimp)
	280	* @return the enum value corresponding to rawValue
	281	*/
	282	static PropertyType fromRawValue(int rawValue) {
	283	for (PropertyType type : PropertyType.values()) {
	284	if (type.m_rawValue == rawValue) {
	285	return type;
	286	}
	287	}
	288
	289	throw new IllegalArgumentException("unexptected raw value: " +
	290	rawValue);
	291	}
	292
	293
	294	/**
	295	* Constructor.
	296	*
	297	* @param rawValue maps java enum to c/c++ integer enum values
	298	*/
	299	private PropertyType(int rawValue) {
	300	m_rawValue = rawValue;
	301	}
	302
	303
	304	/**
	305	* The mapped c/c++ integer enum value.
	306	*/
	307	private final int m_rawValue;
	308	}
	309
	310
	311	/**
	312	* Data structure for a single material property.<p>
	313	*
	314	* As an user, you'll probably never need to deal with this data structure.
	315	* Just use the provided get() family of functions to query material
	316	* properties easily.
	317	*/
	318	public static final class Property {
	319	/**
	320	* Constructor.
	321	*
	322	* @param key
	323	* @param semantic
	324	* @param index
	325	* @param type
	326	* @param data
	327	*/
	328	Property(String key, int semantic, int index, int type,
	329	Object data) {
	330
	331	m_key = key;
	332	m_semantic = semantic;
	333	m_index = index;
	334	m_type = PropertyType.fromRawValue(type);
	335	m_data = data;
	336	}
	337
	338
	339	/**
	340	* Constructor.
	341	*
	342	* @param key
	343	* @param semantic
	344	* @param index
	345	* @param type
	346	* @param dataLen
	347	*/
	348	Property(String key, int semantic, int index, int type,
	349	int dataLen) {
	350
	351	m_key = key;
	352	m_semantic = semantic;
	353	m_index = index;
	354	m_type = PropertyType.fromRawValue(type);
	355
	356	ByteBuffer b = ByteBuffer.allocateDirect(dataLen);
	357	b.order(ByteOrder.nativeOrder());
	358
	359	m_data = b;
	360	}
	361
	362
	363	/**
	364	* Returns the key of the property.<p>
	365	*
	366	* Keys are generally case insensitive.
	367	*
	368	* @return the key
	369	*/
	370	public String getKey() {
	371	return m_key;
	372	}
	373
	374
	375	/**
	376	* Textures: Specifies their exact usage semantic.
	377	* For non-texture properties, this member is always 0
	378	* (or, better-said, #aiTextureType_NONE).
	379	*
	380	* @return the semantic
	381	*/
	382	public int getSemantic() {
	383	return m_semantic;
	384	}
	385
	386
	387	/**
	388	* Textures: Specifies the index of the texture.
	389	* For non-texture properties, this member is always 0.
	390	*
	391	* @return the index
	392	*/
	393	public int getIndex() {
	394	return m_index;
	395	}
	396
	397
	398	/**
	399	* Type information for the property.<p>
	400	*
	401	* Defines the data layout inside the data buffer. This is used
	402	* by the library internally to perform debug checks and to
	403	* utilize proper type conversions.
	404	* (It's probably a hacky solution, but it works.)
	405	*
	406	* @return the type
	407	*/
	408	public PropertyType getType() {
	409	return m_type;
	410	}
	411
	412
	413	/**
	414	* Binary buffer to hold the property's value.
	415	* The size of the buffer is always mDataLength.
	416	*
	417	* @return the data
	418	*/
	419	Object getData() {
	420	return m_data;
	421	}
	422
	423
	424	/**
	425	* Key.
	426	*/
	427	private final String m_key;
	428
	429
	430	/**
	431	* Semantic.
	432	*/
	433	private final int m_semantic;
	434
	435
	436	/**
	437	* Index.
	438	*/
	439	private final int m_index;
	440
	441
	442	/**
	443	* Type.
	444	*/
	445	private final PropertyType m_type;
	446
	447
	448	/**
	449	* Data.
	450	*/
	451	private final Object m_data;
	452	}
	453
	454
	455	/**
	456	* Constructor.
	457	*/
	458	AiMaterial() {
	459	/* nothing to do */
	460	}
	461
	462
	463	/**
	464	* Checks whether the given set of properties is available.
	465	*
	466	* @param keys the keys to check
	467	* @return true if all properties are available, false otherwise
	468	*/
	469	public boolean hasProperties(Set<PropertyKey> keys) {
	470	for (PropertyKey key : keys) {
	471	if (null == getProperty(key.m_key)) {
	472	return false;
	473	}
	474	}
	475
	476	return true;
	477	}
	478
	479
	480	/**
	481	* Sets a default value.<p>
	482	*
	483	* The passed in Object must match the type of the key as returned by
	484	* the corresponding <code>getXXX()</code> method.
	485	*
	486	* @param key the key
	487	* @param defaultValue the new default, may not be null
	488	* @throws IllegalArgumentException if defaultValue is null or has a wrong
	489	* type
	490	*/
	491	public void setDefault(PropertyKey key, Object defaultValue) {
	492	if (null == defaultValue) {
	493	throw new IllegalArgumentException("defaultValue may not be null");
	494	}
	495	if (key.m_type != defaultValue.getClass()) {
	496	throw new IllegalArgumentException(
	497	"defaultValue has wrong type, " +
	498	"expected: " + key.m_type + ", found: " +
	499	defaultValue.getClass());
	500	}
	501
	502	m_defaults.put(key, defaultValue);
	503	}
	504
	505
	506	// {{ Fail-save Getters
	507	/**
	508	* Returns the name of the material.<p>
	509	*
	510	* If missing, defaults to empty string
	511	*
	512	* @return the name
	513	*/
	514	public String getName() {
	515	return getTyped(PropertyKey.NAME, String.class);
	516	}
	517
	518
	519	/**
	520	* Returns the two-sided flag.<p>
	521	*
	522	* If missing, defaults to 0
	523	*
	524	* @return the two-sided flag
	525	*/
	526	public int getTwoSided() {
	527	return getTyped(PropertyKey.TWO_SIDED, Integer.class);
	528	}
	529
	530
	531	/**
	532	* Returns the shading mode.<p>
	533	*
	534	* If missing, defaults to {@link AiShadingMode#FLAT}
	535	*
	536	* @return the shading mode
	537	*/
	538	public AiShadingMode getShadingMode() {
	539	Property p = getProperty(PropertyKey.SHADING_MODE.m_key);
	540
	541	if (null == p \|\| null == p.getData()) {
	542	return (AiShadingMode) m_defaults.get(PropertyKey.SHADING_MODE);
	543	}
	544
	545	return AiShadingMode.fromRawValue((Integer) p.getData());
	546	}
	547
	548
	549	/**
	550	* Returns the wireframe flag.<p>
	551	*
	552	* If missing, defaults to 0
	553	*
	554	* @return the wireframe flag
	555	*/
	556	public int getWireframe() {
	557	return getTyped(PropertyKey.WIREFRAME, Integer.class);
	558	}
	559
	560
	561	/**
	562	* Returns the blend mode.<p>
	563	*
	564	* If missing, defaults to {@link AiBlendMode#DEFAULT}
	565	*
	566	* @return the blend mode
	567	*/
	568	public AiBlendMode getBlendMode() {
	569	Property p = getProperty(PropertyKey.BLEND_MODE.m_key);
	570
	571	if (null == p \|\| null == p.getData()) {
	572	return (AiBlendMode) m_defaults.get(PropertyKey.BLEND_MODE);
	573	}
	574
	575	return AiBlendMode.fromRawValue((Integer) p.getData());
	576	}
	577
	578
	579	/**
	580	* Returns the opacity.<p>
	581	*
	582	* If missing, defaults to 1.0
	583	*
	584	* @return the opacity
	585	*/
	586	public float getOpacity() {
	587	return getTyped(PropertyKey.OPACITY, Float.class);
	588	}
	589
	590
	591	/**
	592	* Returns the bump scaling factor.<p>
	593	*
	594	* If missing, defaults to 1.0
	595	*
	596	* @return the bump scaling factor
	597	*/
	598	public float getBumpScaling() {
	599	return getTyped(PropertyKey.BUMP_SCALING, Float.class);
	600	}
	601
	602
	603	/**
	604	* Returns the shininess.<p>
	605	*
	606	* If missing, defaults to 1.0
	607	*
	608	* @return the shininess
	609	*/
	610	public float getShininess() {
	611	return getTyped(PropertyKey.SHININESS, Float.class);
	612	}
	613
	614
	615	/**
	616	* Returns the reflectivity.<p>
	617	*
	618	* If missing, defaults to 0.0
	619	*
	620	* @return the reflectivity
	621	*/
	622	public float getReflectivity() {
	623	return getTyped(PropertyKey.REFLECTIVITY, Float.class);
	624	}
	625
	626
	627	/**
	628	* Returns the shininess strength.<p>
	629	*
	630	* If missing, defaults to 0.0
	631	*
	632	* @return the shininess strength
	633	*/
	634	public float getShininessStrength() {
	635	return getTyped(PropertyKey.SHININESS_STRENGTH, Float.class);
	636	}
	637
	638
	639	/**
	640	* Returns the refract index.<p>
	641	*
	642	* If missing, defaults to 0.0
	643	*
	644	* @return the refract index
	645	*/
	646	public float getRefractIndex() {
	647	return getTyped(PropertyKey.REFRACTI, Float.class);
	648	}
	649
	650
	651	/**
	652	* Returns the diffuse color.<p>
	653	*
	654	* If missing, defaults to opaque white (1.0, 1.0, 1.0, 1.0)<p>
	655	*
	656	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	657	* for details on wrappers).<p>
	658	*
	659	* The built-in behavior is to return a {@link AiVector}.
	660	*
	661	* @param wrapperProvider the wrapper provider (used for type inference)
	662	* @return the diffuse color
	663	*/
	664	@SuppressWarnings("unchecked")
	665	public <V3, M4, C, N, Q> C getDiffuseColor(
	666	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	667
	668	Property p = getProperty(PropertyKey.COLOR_DIFFUSE.m_key);
	669
	670	if (null == p \|\| null == p.getData()) {
	671	Object def = m_defaults.get(PropertyKey.COLOR_DIFFUSE);
	672	if (def == null) {
	673	return (C) Jassimp.wrapColor4(1.0f, 1.0f, 1.0f, 1.0f);
	674	}
	675
	676	return (C) def;
	677	}
	678
	679	return (C) p.getData();
	680	}
	681
	682
	683	/**
	684	* Returns the ambient color.<p>
	685	*
	686	* If missing, defaults to opaque white (1.0, 1.0, 1.0, 1.0)<p>
	687	*
	688	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	689	* for details on wrappers).<p>
	690	*
	691	* The built-in behavior is to return a {@link AiVector}.
	692	*
	693	* @param wrapperProvider the wrapper provider (used for type inference)
	694	* @return the ambient color
	695	*/
	696	@SuppressWarnings("unchecked")
	697	public <V3, M4, C, N, Q> C getAmbientColor(
	698	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	699
	700	Property p = getProperty(PropertyKey.COLOR_AMBIENT.m_key);
	701
	702	if (null == p \|\| null == p.getData()) {
	703	Object def = m_defaults.get(PropertyKey.COLOR_AMBIENT);
	704	if (def == null) {
	705	return (C) Jassimp.wrapColor4(1.0f, 1.0f, 1.0f, 1.0f);
	706	}
	707
	708	return (C) def;
	709	}
	710
	711	return (C) p.getData();
	712	}
	713
	714
	715	/**
	716	* Returns the specular color.<p>
	717	*
	718	* If missing, defaults to opaque white (1.0, 1.0, 1.0, 1.0)<p>
	719	*
	720	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	721	* for details on wrappers).<p>
	722	*
	723	* The built-in behavior is to return a {@link AiVector}.
	724	*
	725	* @param wrapperProvider the wrapper provider (used for type inference)
	726	* @return the specular color
	727	*/
	728	@SuppressWarnings("unchecked")
	729	public <V3, M4, C, N, Q> C getSpecularColor(
	730	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	731
	732	Property p = getProperty(PropertyKey.COLOR_SPECULAR.m_key);
	733
	734	if (null == p \|\| null == p.getData()) {
	735	Object def = m_defaults.get(PropertyKey.COLOR_SPECULAR);
	736	if (def == null) {
	737	return (C) Jassimp.wrapColor4(1.0f, 1.0f, 1.0f, 1.0f);
	738	}
	739
	740	return (C) def;
	741	}
	742
	743	return (C) p.getData();
	744	}
	745
	746
	747	/**
	748	* Returns the emissive color.<p>
	749	*
	750	* If missing, defaults to opaque white (1.0, 1.0, 1.0, 1.0)<p>
	751	*
	752	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	753	* for details on wrappers).<p>
	754	*
	755	* The built-in behavior is to return a {@link AiVector}.
	756	*
	757	* @param wrapperProvider the wrapper provider (used for type inference)
	758	* @return the emissive color
	759	*/
	760	@SuppressWarnings("unchecked")
	761	public <V3, M4, C, N, Q> C getEmissiveColor(
	762	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	763
	764	Property p = getProperty(PropertyKey.COLOR_EMISSIVE.m_key);
	765
	766	if (null == p \|\| null == p.getData()) {
	767	Object def = m_defaults.get(PropertyKey.COLOR_EMISSIVE);
	768	if (def == null) {
	769	return (C) Jassimp.wrapColor4(1.0f, 1.0f, 1.0f, 1.0f);
	770	}
	771
	772	return (C) def;
	773	}
	774
	775	return (C) p.getData();
	776	}
	777
	778
	779	/**
	780	* Returns the transparent color.<p>
	781	*
	782	* If missing, defaults to opaque white (1.0, 1.0, 1.0, 1.0)<p>
	783	*
	784	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	785	* for details on wrappers).<p>
	786	*
	787	* The built-in behavior is to return a {@link AiVector}.
	788	*
	789	* @param wrapperProvider the wrapper provider (used for type inference)
	790	* @return the transparent color
	791	*/
	792	@SuppressWarnings("unchecked")
	793	public <V3, M4, C, N, Q> C getTransparentColor(
	794	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	795
	796	Property p = getProperty(PropertyKey.COLOR_TRANSPARENT.m_key);
	797
	798	if (null == p \|\| null == p.getData()) {
	799	Object def = m_defaults.get(PropertyKey.COLOR_TRANSPARENT);
	800	if (def == null) {
	801	return (C) Jassimp.wrapColor4(1.0f, 1.0f, 1.0f, 1.0f);
	802	}
	803
	804	return (C) def;
	805	}
	806
	807	return (C) p.getData();
	808	}
	809
	810
	811	/**
	812	* Returns the reflective color.<p>
	813	*
	814	* If missing, defaults to opaque white (1.0, 1.0, 1.0, 1.0)<p>
	815	*
	816	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	817	* for details on wrappers).<p>
	818	*
	819	* The built-in behavior is to return a {@link AiVector}.
	820	*
	821	* @param wrapperProvider the wrapper provider (used for type inference)
	822	* @return the reflective color
	823	*/
	824	@SuppressWarnings("unchecked")
	825	public <V3, M4, C, N, Q> C getReflectiveColor(
	826	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	827
	828	Property p = getProperty(PropertyKey.COLOR_REFLECTIVE.m_key);
	829
	830	if (null == p \|\| null == p.getData()) {
	831	Object def = m_defaults.get(PropertyKey.COLOR_REFLECTIVE);
	832	if (def == null) {
	833	return (C) Jassimp.wrapColor4(1.0f, 1.0f, 1.0f, 1.0f);
	834	}
	835
	836	return (C) def;
	837	}
	838
	839	return (C) p.getData();
	840	}
	841
	842
	843	/**
	844	* Returns the global background image.<p>
	845	*
	846	* If missing, defaults to empty string
	847	*
	848	* @return the global background image
	849	*/
	850	public String getGlobalBackgroundImage() {
	851	return getTyped(PropertyKey.GLOBAL_BACKGROUND_IMAGE, String.class);
	852	}
	853
	854
	855	/**
	856	* Returns the number of textures of the given type.
	857	*
	858	* @param type the type
	859	* @return the number of textures
	860	*/
	861	public int getNumTextures(AiTextureType type) {
	862	return m_numTextures.get(type);
	863	}
	864
	865
	866	/**
	867	* Returns the texture file.<p>
	868	*
	869	* If missing, defaults to empty string
	870	*
	871	* @param type the texture type
	872	* @param index the index in the texture stack
	873	* @return the file
	874	* @throws IndexOutOfBoundsException if index is invalid
	875	*/
	876	public String getTextureFile(AiTextureType type, int index) {
	877	checkTexRange(type, index);
	878
	879	return getTyped(PropertyKey.TEX_FILE, type, index, String.class);
	880	}
	881
	882
	883	/**
	884	* Returns the index of the UV coordinate set used by the texture.<p>
	885	*
	886	* If missing, defaults to 0
	887	*
	888	* @param type the texture type
	889	* @param index the index in the texture stack
	890	* @return the UV index
	891	* @throws IndexOutOfBoundsException if index is invalid
	892	*/
	893	public int getTextureUVIndex(AiTextureType type, int index) {
	894	checkTexRange(type, index);
	895
	896	return getTyped(PropertyKey.TEX_UV_INDEX, type, index, Integer.class);
	897	}
	898
	899
	900	/**
	901	* Returns the blend factor of the texture.<p>
	902	*
	903	* If missing, defaults to 1.0
	904	*
	905	* @param type the texture type
	906	* @param index the index in the texture stack
	907	* @return the blend factor
	908	*/
	909	public float getBlendFactor(AiTextureType type, int index) {
	910	checkTexRange(type, index);
	911
	912	return getTyped(PropertyKey.TEX_BLEND, type, index, Float.class);
	913	}
	914
	915
	916	/**
	917	* Returns the texture operation.<p>
	918	*
	919	* If missing, defaults to {@link AiTextureOp#ADD}
	920	*
	921	* @param type the texture type
	922	* @param index the index in the texture stack
	923	* @return the texture operation
	924	*/
	925	public AiTextureOp getTextureOp(AiTextureType type, int index) {
	926	checkTexRange(type, index);
	927
	928	Property p = getProperty(PropertyKey.TEX_OP.m_key);
	929
	930	if (null == p \|\| null == p.getData()) {
	931	return (AiTextureOp) m_defaults.get(PropertyKey.TEX_OP);
	932	}
	933
	934	return AiTextureOp.fromRawValue((Integer) p.getData());
	935	}
	936
	937
	938	/**
	939	* Returns the texture mapping mode for the u axis.<p>
	940	*
	941	* If missing, defaults to {@link AiTextureMapMode#CLAMP}
	942	*
	943	* @param type the texture type
	944	* @param index the index in the texture stack
	945	* @return the texture mapping mode
	946	*/
	947	public AiTextureMapMode getTextureMapModeU(AiTextureType type, int index) {
	948	checkTexRange(type, index);
	949
	950	Property p = getProperty(PropertyKey.TEX_MAP_MODE_U.m_key);
	951
	952	if (null == p \|\| null == p.getData()) {
	953	return (AiTextureMapMode) m_defaults.get(
	954	PropertyKey.TEX_MAP_MODE_U);
	955	}
	956
	957	return AiTextureMapMode.fromRawValue((Integer) p.getData());
	958	}
	959
	960
	961	/**
	962	* Returns the texture mapping mode for the v axis.<p>
	963	*
	964	* If missing, defaults to {@link AiTextureMapMode#CLAMP}
	965	*
	966	* @param type the texture type
	967	* @param index the index in the texture stack
	968	* @return the texture mapping mode
	969	*/
	970	public AiTextureMapMode getTextureMapModeV(AiTextureType type, int index) {
	971	checkTexRange(type, index);
	972
	973	Property p = getProperty(PropertyKey.TEX_MAP_MODE_V.m_key);
	974
	975	if (null == p \|\| null == p.getData()) {
	976	return (AiTextureMapMode) m_defaults.get(
	977	PropertyKey.TEX_MAP_MODE_V);
	978	}
	979
	980	return AiTextureMapMode.fromRawValue((Integer) p.getData());
	981	}
	982
	983
	984	/**
	985	* Returns the texture mapping mode for the w axis.<p>
	986	*
	987	* If missing, defaults to {@link AiTextureMapMode#CLAMP}
	988	*
	989	* @param type the texture type
	990	* @param index the index in the texture stack
	991	* @return the texture mapping mode
	992	*/
	993	public AiTextureMapMode getTextureMapModeW(AiTextureType type, int index) {
	994	checkTexRange(type, index);
	995
	996	Property p = getProperty(PropertyKey.TEX_MAP_MODE_W.m_key);
	997
	998	if (null == p \|\| null == p.getData()) {
	999	return (AiTextureMapMode) m_defaults.get(
	1000	PropertyKey.TEX_MAP_MODE_W);
	1001	}
	1002
	1003	return AiTextureMapMode.fromRawValue((Integer) p.getData());
	1004	}
	1005
	1006
	1007	/**
	1008	* Returns all information related to a single texture.
	1009	*
	1010	* @param type the texture type
	1011	* @param index the index in the texture stack
	1012	* @return the texture information
	1013	*/
	1014	public AiTextureInfo getTextureInfo(AiTextureType type, int index) {
	1015	return new AiTextureInfo(type, index, getTextureFile(type, index),
	1016	getTextureUVIndex(type, index), getBlendFactor(type, index),
	1017	getTextureOp(type, index), getTextureMapModeW(type, index),
	1018	getTextureMapModeW(type, index),
	1019	getTextureMapModeW(type, index));
	1020	}
	1021	// }}
	1022
	1023	// {{ Generic Getters
	1024	/**
	1025	* Returns a single property based on its key.
	1026	*
	1027	* @param key the key
	1028	* @return the property or null if the property is not set
	1029	*/
	1030	public Property getProperty(String key) {
	1031	for (Property property : m_properties) {
	1032	if (property.getKey().equals(key)) {
	1033	return property;
	1034	}
	1035	}
	1036
	1037	return null;
	1038	}
	1039
	1040
	1041	/**
	1042	* Returns a single property based on its key.
	1043	*
	1044	* @param key the key
	1045	* @param semantic the semantic type (texture type)
	1046	* @param index the index
	1047	* @return the property or null if the property is not set
	1048	*/
	1049	public Property getProperty(String key, int semantic, int index) {
	1050	for (Property property : m_properties) {
	1051	if (property.getKey().equals(key) &&
	1052	property.m_semantic == semantic &&
	1053	property.m_index == index) {
	1054
	1055	return property;
	1056	}
	1057	}
	1058
	1059	return null;
	1060	}
	1061
	1062
	1063	/**
	1064	* Returns all properties of the material.
	1065	*
	1066	* @return the list of properties
	1067	*/
	1068	public List<Property> getProperties() {
	1069	return m_properties;
	1070	}
	1071	// }}
	1072
	1073
	1074	/**
	1075	* Helper method. Returns typed property data.
	1076	*
	1077	* @param <T> type
	1078	* @param key the key
	1079	* @param clazz type
	1080	* @return the data
	1081	*/
	1082	private <T> T getTyped(PropertyKey key, Class<T> clazz) {
	1083	Property p = getProperty(key.m_key);
	1084
	1085	if (null == p \|\| null == p.getData()) {
	1086	return clazz.cast(m_defaults.get(key));
	1087	}
	1088
	1089	return clazz.cast(p.getData());
	1090	}
	1091
	1092
	1093	/**
	1094	* Helper method. Returns typed property data.
	1095	*
	1096	* @param <T> type
	1097	* @param key the key
	1098	* @param type the texture type
	1099	* @param index the texture index
	1100	* @param clazz type
	1101	* @return the data
	1102	*/
	1103	private <T> T getTyped(PropertyKey key, AiTextureType type, int index,
	1104	Class<T> clazz) {
	1105
	1106	Property p = getProperty(key.m_key, AiTextureType.toRawValue(type),
	1107	index);
	1108
	1109	if (null == p \|\| null == p.getData()) {
	1110	return clazz.cast(m_defaults.get(key));
	1111	}
	1112
	1113	return clazz.cast(p.getData());
	1114	}
	1115
	1116
	1117	/**
	1118	* Checks that index is valid an throw an exception if not.
	1119	*
	1120	* @param type the type
	1121	* @param index the index to check
	1122	*/
	1123	private void checkTexRange(AiTextureType type, int index) {
	1124	if (index < 0 \|\| index > m_numTextures.get(type)) {
	1125	throw new IndexOutOfBoundsException("Index: " + index + ", Size: " +
	1126	m_numTextures.get(type));
	1127	}
	1128	}
	1129
	1130
	1131	/**
	1132	* Defaults for missing properties.
	1133	*/
	1134	private Map<PropertyKey, Object> m_defaults =
	1135	new EnumMap<PropertyKey, Object>(PropertyKey.class);
	1136
	1137	{
	1138	setDefault(PropertyKey.NAME, "");
	1139	setDefault(PropertyKey.TWO_SIDED, 0);
	1140	setDefault(PropertyKey.SHADING_MODE, AiShadingMode.FLAT);
	1141	setDefault(PropertyKey.WIREFRAME, 0);
	1142	setDefault(PropertyKey.BLEND_MODE, AiBlendMode.DEFAULT);
	1143	setDefault(PropertyKey.OPACITY, 1.0f);
	1144	setDefault(PropertyKey.BUMP_SCALING, 1.0f);
	1145	setDefault(PropertyKey.SHININESS, 1.0f);
	1146	setDefault(PropertyKey.REFLECTIVITY, 0.0f);
	1147	setDefault(PropertyKey.SHININESS_STRENGTH, 0.0f);
	1148	setDefault(PropertyKey.REFRACTI, 0.0f);
	1149
	1150	/* bypass null checks for colors */
	1151	m_defaults.put(PropertyKey.COLOR_DIFFUSE, null);
	1152	m_defaults.put(PropertyKey.COLOR_AMBIENT, null);
	1153	m_defaults.put(PropertyKey.COLOR_SPECULAR, null);
	1154	m_defaults.put(PropertyKey.COLOR_EMISSIVE, null);
	1155	m_defaults.put(PropertyKey.COLOR_TRANSPARENT, null);
	1156	m_defaults.put(PropertyKey.COLOR_REFLECTIVE, null);
	1157
	1158	setDefault(PropertyKey.GLOBAL_BACKGROUND_IMAGE, "");
	1159
	1160	/* texture related values */
	1161	setDefault(PropertyKey.TEX_FILE, "");
	1162	setDefault(PropertyKey.TEX_UV_INDEX, 0);
	1163	setDefault(PropertyKey.TEX_BLEND, 1.0f);
	1164	setDefault(PropertyKey.TEX_OP, AiTextureOp.ADD);
	1165	setDefault(PropertyKey.TEX_MAP_MODE_U, AiTextureMapMode.CLAMP);
	1166	setDefault(PropertyKey.TEX_MAP_MODE_V, AiTextureMapMode.CLAMP);
	1167	setDefault(PropertyKey.TEX_MAP_MODE_W, AiTextureMapMode.CLAMP);
	1168
	1169	/* ensure we have defaults for everything */
	1170	for (PropertyKey key : PropertyKey.values()) {
	1171	if (!m_defaults.containsKey(key)) {
	1172	throw new IllegalStateException("missing default for: " + key);
	1173	}
	1174	}
	1175	}
	1176
	1177
	1178	/**
	1179	* This method is used by JNI, do not call or modify.
	1180	*
	1181	* @param type the type
	1182	* @param number the number
	1183	*/
	1184	@SuppressWarnings("unused")
	1185	private void setTextureNumber(int type, int number) {
	1186	m_numTextures.put(AiTextureType.fromRawValue(type), number);
	1187	}
	1188
	1189
	1190	/**
	1191	* List of properties.
	1192	*/
	1193	private final List<Property> m_properties = new ArrayList<Property>();
	1194
	1195
	1196	/**
	1197	* Number of textures for each type.
	1198	*/
	1199	private final Map<AiTextureType, Integer> m_numTextures =
	1200	new EnumMap<AiTextureType, Integer>(AiTextureType.class);
	1201	}

+133

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port/jassimp/jassimp/src/jassimp/AiMatrix4f.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.nio.ByteBuffer;
	43	import java.nio.ByteOrder;
	44	import java.nio.FloatBuffer;
	45
	46	/**
	47	* Simple 4x4 matrix of floats.
	48	*/
	49	public final class AiMatrix4f {
	50	/**
	51	* Wraps the given array of floats as matrix.
	52	* <p>
	53	*
	54	* The array must have exactly 16 entries. The data in the array must be in
	55	* row-major order.
	56	*
	57	* @param data
	58	* the array to wrap, may not be null
	59	*/
	60	public AiMatrix4f(float[] data) {
	61	if (data == null) {
	62	throw new IllegalArgumentException("data may not be null");
	63	}
	64	if (data.length != 16) {
	65	throw new IllegalArgumentException("array length is not 16");
	66	}
	67
	68	m_data = data;
	69	}
	70
	71	/**
	72	* Gets an element of the matrix.
	73	*
	74	* @param row
	75	* the row
	76	* @param col
	77	* the column
	78	* @return the element at the given position
	79	*/
	80	public float get(int row, int col) {
	81	if (row < 0 \|\| row > 3) {
	82	throw new IndexOutOfBoundsException("Index: " + row + ", Size: 4");
	83	}
	84	if (col < 0 \|\| col > 3) {
	85	throw new IndexOutOfBoundsException("Index: " + col + ", Size: 4");
	86	}
	87
	88	return m_data[row * 4 + col];
	89	}
	90
	91	/**
	92	* Stores the matrix in a new direct ByteBuffer with native byte order.
	93	* <p>
	94	*
	95	* The returned buffer can be passed to rendering APIs such as LWJGL, e.g.,
	96	* as parameter for <code>GL20.glUniformMatrix4()</code>. Be sure to set
	97	* <code>transpose</code> to <code>true</code> in this case, as OpenGL
	98	* expects the matrix in column order.
	99	*
	100	* @return a new native order, direct ByteBuffer
	101	*/
	102	public FloatBuffer toByteBuffer() {
	103	ByteBuffer bbuf = ByteBuffer.allocateDirect(16 * 4);
	104	bbuf.order(ByteOrder.nativeOrder());
	105	FloatBuffer fbuf = bbuf.asFloatBuffer();
	106	fbuf.put(m_data);
	107	fbuf.flip();
	108
	109	return fbuf;
	110	}
	111
	112
	113	@Override
	114	public String toString() {
	115	StringBuilder buf = new StringBuilder();
	116
	117	for (int row = 0; row < 4; row++) {
	118	for (int col = 0; col < 4; col++) {
	119	buf.append(m_data[row * 4 + col]).append(" ");
	120	}
	121	buf.append("\n");
	122	}
	123
	124	return buf.toString();
	125	}
	126
	127
	128	/**
	129	* Data buffer.
	130	*/
	131	private final float[] m_data;
	132	}

+1429

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port/jassimp/jassimp/src/jassimp/AiMesh.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.nio.ByteBuffer;
	43	import java.nio.ByteOrder;
	44	import java.nio.FloatBuffer;
	45	import java.nio.IntBuffer;
	46	import java.util.ArrayList;
	47	import java.util.EnumSet;
	48	import java.util.List;
	49	import java.util.Set;
	50
	51
	52	/**
	53	* A mesh represents a geometry or model with a single material.
	54	* <p>
	55	*
	56	* <h3>Data</h3>
	57	* Meshes usually consist of a number of vertices and a series of faces
	58	* referencing the vertices. In addition there might be a series of bones, each
	59	* of them addressing a number of vertices with a certain weight. Vertex data is
	60	* presented in channels with each channel containing a single per-vertex
	61	* information such as a set of texture coordinates or a normal vector.<p>
	62	*
	63	* Faces consist of one or more references to vertices, called vertex indices.
	64	* The {@link #getPrimitiveTypes()} method can be used to check what
	65	* face types are present in the mesh. Note that a single mesh can possess
	66	* faces of different types. The number of indices used by a specific face can
	67	* be retrieved with the {@link #getFaceNumIndices(int)} method.
	68	*
	69	*
	70	* <h3>API for vertex and face data</h3>
	71	* The jassimp interface for accessing vertex and face data is not a one-to-one
	72	* mapping of the c/c++ interface. The c/c++ interface uses an object-oriented
	73	* approach to represent data, which provides a considerable
	74	* overhead using a naive java based realization (cache locality would be
	75	* unpredictable and most likely bad, bulk data transfer would be impossible).
	76	* <p>
	77	*
	78	* The jassimp interface uses flat byte buffers to store vertex and face data.
	79	* This data can be accessed through three APIs:
	80	* <ul>
	81	* <li><b>Buffer API:</b> the <code>getXXXBuffer()</code> methods return
	82	* raw data buffers.
	83	* <li><b>Direct API:</b> the <code>getXXX()</code> methods allow reading
	84	* and writing of individual data values.
	85	* <li><b>Wrapped API:</b> the <code>getWrappedXXX()</code> methods provide
	86	* an object oriented view on the data.
	87	* </ul>
	88	*
	89	* The Buffer API is optimized for use in conjunction with rendering APIs
	90	* such as LWJGL. The returned buffers are guaranteed to have native byte order
	91	* and to be direct byte buffers. They can be passed directly to LWJGL
	92	* methods, e.g., to fill VBOs with data. Each invocation of a
	93	* <code>getXXXBuffer()</code> method will return a new view of the internal
	94	* buffer, i.e., if is safe to use the relative byte buffer operations.
	95	* The Buffer API provides the best performance of all three APIs, especially
	96	* if large data volumes have to be processed.<p>
	97	*
	98	* The Direct API provides an easy to use interface for reading and writing
	99	* individual data values. Its performance is comparable to the Buffer API's
	100	* performance for these operations. The main difference to the Buffer API is
	101	* the missing support for bulk operations. If you intend to retrieve or modify
	102	* large subsets of the raw data consider using the Buffer API, especially
	103	* if the subsets are contiguous.
	104	* <p>
	105	*
	106	* The Wrapped API offers an object oriented interface for accessing
	107	* and modifying mesh data. As the name implies, this interface is realized
	108	* through wrapper objects that provide a view on the raw data. For each
	109	* invocation of a <code>getWrappedXXX()</code> method, a new wrapper object
	110	* is created. Iterating over mesh data via this interface will create many
	111	* short-lived wrapper objects which -depending on usage and virtual machine-
	112	* may cause considerable garbage collection overhead. The Wrapped API provides
	113	* the worst performance of all three APIs, which may nevertheless still be
	114	* good enough to warrant its usage. See {@link AiWrapperProvider} for more
	115	* details on wrappers.
	116	*
	117	*
	118	* <h3>API for bones</h3>
	119	* As there is no standardized way for doing skinning in different graphics
	120	* engines, bones are not represented as flat buffers but as object structure.
	121	* Users of this library should convert this structure to the format required
	122	* by the specific graphics engine.
	123	*
	124	*
	125	* <h3>Changing Data</h3>
	126	* This class is designed to be mutable, i.e., the returned objects and buffers
	127	* may be modified. It is not possible to add/remove vertices as this would
	128	* require reallocation of the data buffers. Wrapped objects may or may not
	129	* propagate changes to the underlying data buffers. Consult the documentation
	130	* of your wrapper provider for details. The built in wrappers will propagate
	131	* changes.
	132	* <p>
	133	* Modification of face data is theoretically possible by modifying the face
	134	* buffer and the faceOffset buffer however it is strongly disadvised to do so
	135	* because it might break all algorithms that depend on the internal consistency
	136	* of these two data structures.
	137	*/
	138	public final class AiMesh {
	139	/**
	140	* Number of bytes per float value.
	141	*/
	142	private static final int SIZEOF_FLOAT = 4;
	143
	144
	145	/**
	146	* Number of bytes per int value.
	147	*/
	148	private static final int SIZEOF_INT = 4;
	149
	150
	151	/**
	152	* This class is instantiated via JNI, no accessible constructor.
	153	*/
	154	private AiMesh() {
	155	/* nothing to do */
	156	}
	157
	158
	159	/**
	160	* Returns the primitive types used by this mesh.
	161	*
	162	* @return a set of primitive types used by this mesh
	163	*/
	164	public Set<AiPrimitiveType> getPrimitiveTypes() {
	165	return m_primitiveTypes;
	166	}
	167
	168
	169	/**
	170	* Tells whether the mesh is a pure triangle mesh, i.e., contains only
	171	* triangular faces.<p>
	172	*
	173	* To automatically triangulate meshes the
	174	* {@link AiPostProcessSteps#TRIANGULATE} post processing option can be
	175	* used when loading the scene
	176	*
	177	* @return true if the mesh is a pure triangle mesh, false otherwise
	178	*/
	179	public boolean isPureTriangle() {
	180	return m_primitiveTypes.contains(AiPrimitiveType.TRIANGLE) &&
	181	m_primitiveTypes.size() == 1;
	182	}
	183
	184
	185	/**
	186	* Tells whether the mesh has vertex positions.<p>
	187	*
	188	* Meshes almost always contain position data
	189	*
	190	* @return true if positions are available
	191	*/
	192	public boolean hasPositions() {
	193	return m_vertices != null;
	194	}
	195
	196
	197	/**
	198	* Tells whether the mesh has faces.<p>
	199	*
	200	* Meshes almost always contain faces
	201	*
	202	* @return true if faces are available
	203	*/
	204	public boolean hasFaces() {
	205	return m_faces != null;
	206	}
	207
	208
	209	/**
	210	* Tells whether the mesh has normals.
	211	*
	212	* @return true if normals are available
	213	*/
	214	public boolean hasNormals() {
	215	return m_normals != null;
	216	}
	217
	218
	219	/**
	220	* Tells whether the mesh has tangents and bitangents.<p>
	221	*
	222	* It is not possible that it contains tangents and no bitangents (or the
	223	* other way round). The existence of one of them implies that the second
	224	* is there, too.
	225	*
	226	* @return true if tangents and bitangents are available
	227	*/
	228	public boolean hasTangentsAndBitangents() {
	229	return m_tangents != null && m_tangents != null;
	230	}
	231
	232
	233	/**
	234	* Tells whether the mesh has a vertex color set.
	235	*
	236	* @param colorset index of the color set
	237	* @return true if colors are available
	238	*/
	239	public boolean hasColors(int colorset) {
	240	return m_colorsets[colorset] != null;
	241	}
	242
	243
	244	/**
	245	* Tells whether the mesh has any vertex colors.<p>
	246	*
	247	* Use {@link #hasColors(int)} to check which color sets are
	248	* available.
	249	*
	250	* @return true if any colors are available
	251	*/
	252	public boolean hasVertexColors() {
	253	for (ByteBuffer buf : m_colorsets) {
	254	if (buf != null) {
	255	return true;
	256	}
	257	}
	258
	259	return false;
	260	}
	261
	262
	263	/**
	264	* Tells whether the mesh has a texture coordinate set.
	265	*
	266	* @param coords index of the texture coordinate set
	267	* @return true if texture coordinates are available
	268	*/
	269	public boolean hasTexCoords(int coords) {
	270	return m_texcoords[coords] != null;
	271	}
	272
	273
	274	/**
	275	* Tells whether the mesh has any texture coordinate sets.<p>
	276	*
	277	* Use {@link #hasTexCoords(int)} to check which texture coordinate
	278	* sets are available
	279	*
	280	* @return true if any texture coordinates are available
	281	*/
	282	public boolean hasTexCoords() {
	283	for (ByteBuffer buf : m_texcoords) {
	284	if (buf != null) {
	285	return true;
	286	}
	287	}
	288
	289	return false;
	290	}
	291
	292
	293	/**
	294	* Tells whether the mesh has bones.
	295	*
	296	* @return true if bones are available
	297	*/
	298	public boolean hasBones() {
	299	return !m_bones.isEmpty();
	300	}
	301
	302
	303	/**
	304	* Returns the bones of this mesh.
	305	*
	306	* @return a list of bones
	307	*/
	308	public List<AiBone> getBones() {
	309	return m_bones;
	310	}
	311
	312
	313	/**
	314	* Returns the number of vertices in this mesh.
	315	*
	316	* @return the number of vertices.
	317	*/
	318	public int getNumVertives() {
	319	return m_numVertices;
	320	}
	321
	322
	323	/**
	324	* Returns the number of faces in the mesh.
	325	*
	326	* @return the number of faces
	327	*/
	328	public int getNumFaces() {
	329	return m_numFaces;
	330	}
	331
	332
	333	/**
	334	* Returns the number of vertex indices for a single face.
	335	*
	336	* @param face the face
	337	* @return the number of indices
	338	*/
	339	public int getFaceNumIndices(int face) {
	340	if (null == m_faceOffsets) {
	341	if (face >= m_numFaces \|\| face < 0) {
	342	throw new IndexOutOfBoundsException("Index: " + face +
	343	", Size: " + m_numFaces);
	344	}
	345	return 3;
	346	}
	347	else {
	348	/*
	349	* no need to perform bound checks here as the array access will
	350	* throw IndexOutOfBoundsExceptions if the index is invalid
	351	*/
	352
	353	if (face == m_numFaces - 1) {
	354	return m_faces.capacity() / 4 - m_faceOffsets.getInt(face * 4);
	355	}
	356
	357	return m_faceOffsets.getInt((face + 1) * 4) -
	358	m_faceOffsets.getInt(face * 4);
	359	}
	360	}
	361
	362
	363	/**
	364	* Returns the number of UV components for a texture coordinate set.<p>
	365	*
	366	* Possible values range from 1 to 3 (1D to 3D texture coordinates)
	367	*
	368	* @param coords the coordinate set
	369	* @return the number of components
	370	*/
	371	public int getNumUVComponents(int coords) {
	372	return m_numUVComponents[coords];
	373	}
	374
	375
	376	/**
	377	* Returns the material used by this mesh.<p>
	378	*
	379	* A mesh does use only a single material. If an imported model uses
	380	* multiple materials, the import splits up the mesh. Use this value
	381	* as index into the scene's material list.
	382	*
	383	* @return the material index
	384	*/
	385	public int getMaterialIndex() {
	386	return m_materialIndex;
	387	}
	388
	389
	390	/**
	391	* Returns the name of the mesh.<p>
	392	*
	393	* Not all meshes have a name, if no name is set an empty string is
	394	* returned.
	395	*
	396	* @return the name or an empty string if no name is set
	397	*/
	398	public String getName() {
	399	return m_name;
	400	}
	401
	402
	403	// CHECKSTYLE:OFF
	404	@Override
	405	public String toString() {
	406	StringBuilder buf = new StringBuilder();
	407	buf.append("Mesh(").append(m_numVertices).append(" vertices, ").
	408	append(m_numFaces).append(" faces");
	409
	410	if (hasNormals()) {
	411	buf.append(", normals");
	412	}
	413	if (hasTangentsAndBitangents()) {
	414	buf.append(", (bi-)tangents");
	415	}
	416	if (hasVertexColors()) {
	417	buf.append(", colors");
	418	}
	419	if (hasTexCoords()) {
	420	buf.append(", texCoords");
	421	}
	422
	423	buf.append(")");
	424	return buf.toString();
	425	}
	426	// CHECKSTYLE:ON
	427
	428
	429	// {{ Buffer API
	430	/**
	431	* Returns a buffer containing vertex positions.<p>
	432	*
	433	* A vertex position consists of a triple of floats, the buffer will
	434	* therefore contain <code>3 * getNumVertives()</code> floats
	435	*
	436	* @return a native-order direct buffer, or null if no data is available
	437	*/
	438	public FloatBuffer getPositionBuffer() {
	439	if (m_vertices == null) {
	440	return null;
	441	}
	442
	443	return m_vertices.asFloatBuffer();
	444	}
	445
	446
	447	/**
	448	* Returns a buffer containing face data.<p>
	449	*
	450	* You should use the {@link #getIndexBuffer()} method if you are
	451	* interested in getting an index buffer used by graphics APIs such as
	452	* LWJGL.<p>
	453	*
	454	* The buffer contains all vertex indices from all faces as a flat list. If
	455	* the mesh is a pure triangle mesh, the buffer returned by this method is
	456	* identical to the buffer returned by {@link #getIndexBuffer()}. For other
	457	* meshes, the {@link #getFaceOffsets()} method can be used to retrieve
	458	* an index structure that allows addressing individual faces in the list.
	459	*
	460	* @return a native-order direct buffer, or null if no data is available
	461	*/
	462	public IntBuffer getFaceBuffer() {
	463	if (m_faces == null) {
	464	return null;
	465	}
	466
	467	return m_faces.asIntBuffer();
	468	}
	469
	470
	471	/**
	472	* Returns an index structure for the buffer returned by
	473	* {@link #getFaceBuffer()}.<p>
	474	*
	475	* You should use the {@link #getIndexBuffer()} method if you are
	476	* interested in getting an index buffer used by graphics APIs such as
	477	* LWJGL.<p>
	478	*
	479	* The returned buffer contains one integer entry for each face. This entry
	480	* specifies the offset at which the face's data is located inside the
	481	* face buffer. The difference between two subsequent entries can be used
	482	* to determine how many vertices belong to a given face (the last face
	483	* contains all entries between the offset and the end of the face buffer).
	484	*
	485	* @return a native-order direct buffer, or null if no data is available
	486	*/
	487	public IntBuffer getFaceOffsets() {
	488	if (m_faceOffsets == null) {
	489	return null;
	490	}
	491
	492	return m_faceOffsets.asIntBuffer();
	493	}
	494
	495
	496
	497	/**
	498	* Returns a buffer containing vertex indices for the mesh's faces.<p>
	499	*
	500	* This method may only be called on pure triangle meshes, i.e., meshes
	501	* containing only triangles. The {@link #isPureTriangle()} method can be
	502	* used to check whether this is the case.<p>
	503	*
	504	* Indices are stored as integers, the buffer will therefore contain
	505	* <code>3 * getNumVertives()</code> integers (3 indices per triangle)
	506	*
	507	* @return a native-order direct buffer
	508	* @throws UnsupportedOperationException
	509	* if the mesh is not a pure triangle mesh
	510	*/
	511	public IntBuffer getIndexBuffer() {
	512	if (!isPureTriangle()) {
	513	throw new UnsupportedOperationException(
	514	"mesh is not a pure triangle mesh");
	515	}
	516
	517	return getFaceBuffer();
	518	}
	519
	520
	521	/**
	522	* Returns a buffer containing normals.<p>
	523	*
	524	* A normal consists of a triple of floats, the buffer will
	525	* therefore contain <code>3 * getNumVertives()</code> floats
	526	*
	527	* @return a native-order direct buffer
	528	*/
	529	public FloatBuffer getNormalBuffer() {
	530	if (m_normals == null) {
	531	return null;
	532	}
	533
	534	return m_normals.asFloatBuffer();
	535	}
	536
	537
	538	/**
	539	* Returns a buffer containing tangents.<p>
	540	*
	541	* A tangent consists of a triple of floats, the buffer will
	542	* therefore contain <code>3 * getNumVertives()</code> floats
	543	*
	544	* @return a native-order direct buffer
	545	*/
	546	public FloatBuffer getTangentBuffer() {
	547	if (m_tangents == null) {
	548	return null;
	549	}
	550
	551	return m_tangents.asFloatBuffer();
	552	}
	553
	554
	555	/**
	556	* Returns a buffer containing bitangents.<p>
	557	*
	558	* A bitangent consists of a triple of floats, the buffer will
	559	* therefore contain <code>3 * getNumVertives()</code> floats
	560	*
	561	* @return a native-order direct buffer
	562	*/
	563	public FloatBuffer getBitangentBuffer() {
	564	if (m_bitangents == null) {
	565	return null;
	566	}
	567
	568	return m_bitangents.asFloatBuffer();
	569	}
	570
	571
	572	/**
	573	* Returns a buffer containing vertex colors for a color set.<p>
	574	*
	575	* A vertex color consists of 4 floats (red, green, blue and alpha), the
	576	* buffer will therefore contain <code>4 * getNumVertives()</code> floats
	577	*
	578	* @param colorset the color set
	579	*
	580	* @return a native-order direct buffer, or null if no data is available
	581	*/
	582	public FloatBuffer getColorBuffer(int colorset) {
	583	if (m_colorsets[colorset] == null) {
	584	return null;
	585	}
	586
	587	return m_colorsets[colorset].asFloatBuffer();
	588	}
	589
	590
	591	/**
	592	* Returns a buffer containing coordinates for a texture coordinate set.<p>
	593	*
	594	* A texture coordinate consists of up to 3 floats (u, v, w). The actual
	595	* number can be queried via {@link #getNumUVComponents(int)}. The
	596	* buffer will contain
	597	* <code>getNumUVComponents(coords) * getNumVertives()</code> floats
	598	*
	599	* @param coords the texture coordinate set
	600	*
	601	* @return a native-order direct buffer, or null if no data is available
	602	*/
	603	public FloatBuffer getTexCoordBuffer(int coords) {
	604	if (m_texcoords[coords] == null) {
	605	return null;
	606	}
	607
	608	return m_texcoords[coords].asFloatBuffer();
	609	}
	610	// }}
	611
	612
	613	// {{ Direct API
	614	/**
	615	* Returns the x-coordinate of a vertex position.
	616	*
	617	* @param vertex the vertex index
	618	* @return the x coordinate
	619	*/
	620	public float getPositionX(int vertex) {
	621	if (!hasPositions()) {
	622	throw new IllegalStateException("mesh has no positions");
	623	}
	624
	625	checkVertexIndexBounds(vertex);
	626
	627	return m_vertices.getFloat(vertex * 3 * SIZEOF_FLOAT);
	628	}
	629
	630
	631	/**
	632	* Returns the y-coordinate of a vertex position.
	633	*
	634	* @param vertex the vertex index
	635	* @return the y coordinate
	636	*/
	637	public float getPositionY(int vertex) {
	638	if (!hasPositions()) {
	639	throw new IllegalStateException("mesh has no positions");
	640	}
	641
	642	checkVertexIndexBounds(vertex);
	643
	644	return m_vertices.getFloat((vertex * 3 + 1) * SIZEOF_FLOAT);
	645	}
	646
	647	/**
	648	* Returns the z-coordinate of a vertex position.
	649	*
	650	* @param vertex the vertex index
	651	* @return the z coordinate
	652	*/
	653	public float getPositionZ(int vertex) {
	654	if (!hasPositions()) {
	655	throw new IllegalStateException("mesh has no positions");
	656	}
	657
	658	checkVertexIndexBounds(vertex);
	659
	660	return m_vertices.getFloat((vertex * 3 + 2) * SIZEOF_FLOAT);
	661	}
	662
	663
	664	/**
	665	* Returns a vertex reference from a face.<p>
	666	*
	667	* A face contains <code>getFaceNumIndices(face)</code> vertex references.
	668	* This method returns the n'th of these. The returned index can be passed
	669	* directly to the vertex oriented methods, such as
	670	* <code>getPosition()</code> etc.
	671	*
	672	* @param face the face
	673	* @param n the reference
	674	* @return a vertex index
	675	*/
	676	public int getFaceVertex(int face, int n) {
	677	if (!hasFaces()) {
	678	throw new IllegalStateException("mesh has no faces");
	679	}
	680
	681	if (face >= m_numFaces \|\| face < 0) {
	682	throw new IndexOutOfBoundsException("Index: " + face + ", Size: " +
	683	m_numFaces);
	684	}
	685	if (n >= getFaceNumIndices(face) \|\| n < 0) {
	686	throw new IndexOutOfBoundsException("Index: " + n + ", Size: " +
	687	getFaceNumIndices(face));
	688	}
	689
	690	int faceOffset = 0;
	691	if (m_faceOffsets == null) {
	692	faceOffset = 3 * face * SIZEOF_INT;
	693	}
	694	else {
	695	faceOffset = m_faceOffsets.getInt(face * SIZEOF_INT) * SIZEOF_INT;
	696	}
	697
	698	return m_faces.getInt(faceOffset + n * SIZEOF_INT);
	699	}
	700
	701
	702	/**
	703	* Returns the x-coordinate of a vertex normal.
	704	*
	705	* @param vertex the vertex index
	706	* @return the x coordinate
	707	*/
	708	public float getNormalX(int vertex) {
	709	if (!hasNormals()) {
	710	throw new IllegalStateException("mesh has no normals");
	711	}
	712
	713	checkVertexIndexBounds(vertex);
	714
	715	return m_normals.getFloat(vertex * 3 * SIZEOF_FLOAT);
	716	}
	717
	718
	719	/**
	720	* Returns the y-coordinate of a vertex normal.
	721	*
	722	* @param vertex the vertex index
	723	* @return the y coordinate
	724	*/
	725	public float getNormalY(int vertex) {
	726	if (!hasNormals()) {
	727	throw new IllegalStateException("mesh has no normals");
	728	}
	729
	730	checkVertexIndexBounds(vertex);
	731
	732	return m_normals.getFloat((vertex * 3 + 1) * SIZEOF_FLOAT);
	733	}
	734
	735
	736	/**
	737	* Returns the z-coordinate of a vertex normal.
	738	*
	739	* @param vertex the vertex index
	740	* @return the z coordinate
	741	*/
	742	public float getNormalZ(int vertex) {
	743	if (!hasNormals()) {
	744	throw new IllegalStateException("mesh has no normals");
	745	}
	746
	747	checkVertexIndexBounds(vertex);
	748
	749	return m_normals.getFloat((vertex * 3 + 2) * SIZEOF_FLOAT);
	750	}
	751
	752
	753	/**
	754	* Returns the x-coordinate of a vertex tangent.
	755	*
	756	* @param vertex the vertex index
	757	* @return the x coordinate
	758	*/
	759	public float getTangentX(int vertex) {
	760	if (!hasTangentsAndBitangents()) {
	761	throw new IllegalStateException("mesh has no tangents");
	762	}
	763
	764	checkVertexIndexBounds(vertex);
	765
	766	return m_tangents.getFloat(vertex * 3 * SIZEOF_FLOAT);
	767	}
	768
	769
	770	/**
	771	* Returns the y-coordinate of a vertex bitangent.
	772	*
	773	* @param vertex the vertex index
	774	* @return the y coordinate
	775	*/
	776	public float getTangentY(int vertex) {
	777	if (!hasTangentsAndBitangents()) {
	778	throw new IllegalStateException("mesh has no bitangents");
	779	}
	780
	781	checkVertexIndexBounds(vertex);
	782
	783	return m_tangents.getFloat((vertex * 3 + 1) * SIZEOF_FLOAT);
	784	}
	785
	786
	787	/**
	788	* Returns the z-coordinate of a vertex tangent.
	789	*
	790	* @param vertex the vertex index
	791	* @return the z coordinate
	792	*/
	793	public float getTangentZ(int vertex) {
	794	if (!hasTangentsAndBitangents()) {
	795	throw new IllegalStateException("mesh has no tangents");
	796	}
	797
	798	checkVertexIndexBounds(vertex);
	799
	800	return m_tangents.getFloat((vertex * 3 + 2) * SIZEOF_FLOAT);
	801	}
	802
	803
	804	/**
	805	* Returns the x-coordinate of a vertex tangent.
	806	*
	807	* @param vertex the vertex index
	808	* @return the x coordinate
	809	*/
	810	public float getBitangentX(int vertex) {
	811	if (!hasTangentsAndBitangents()) {
	812	throw new IllegalStateException("mesh has no bitangents");
	813	}
	814
	815	checkVertexIndexBounds(vertex);
	816
	817	return m_bitangents.getFloat(vertex * 3 * SIZEOF_FLOAT);
	818	}
	819
	820
	821	/**
	822	* Returns the y-coordinate of a vertex tangent.
	823	*
	824	* @param vertex the vertex index
	825	* @return the y coordinate
	826	*/
	827	public float getBitangentY(int vertex) {
	828	if (!hasTangentsAndBitangents()) {
	829	throw new IllegalStateException("mesh has no bitangents");
	830	}
	831
	832	checkVertexIndexBounds(vertex);
	833
	834	return m_bitangents.getFloat((vertex * 3 + 1) * SIZEOF_FLOAT);
	835	}
	836
	837
	838	/**
	839	* Returns the z-coordinate of a vertex tangent.
	840	*
	841	* @param vertex the vertex index
	842	* @return the z coordinate
	843	*/
	844	public float getBitangentZ(int vertex) {
	845	if (!hasTangentsAndBitangents()) {
	846	throw new IllegalStateException("mesh has no bitangents");
	847	}
	848
	849	checkVertexIndexBounds(vertex);
	850
	851	return m_bitangents.getFloat((vertex * 3 + 2) * SIZEOF_FLOAT);
	852	}
	853
	854
	855	/**
	856	* Returns the red color component of a color from a vertex color set.
	857	*
	858	* @param vertex the vertex index
	859	* @param colorset the color set
	860	* @return the red color component
	861	*/
	862	public float getColorR(int vertex, int colorset) {
	863	if (!hasColors(colorset)) {
	864	throw new IllegalStateException("mesh has no colorset " + colorset);
	865	}
	866
	867	checkVertexIndexBounds(vertex);
	868	/* bound checks for colorset are done by java for us */
	869
	870	return m_colorsets[colorset].getFloat(vertex * 4 * SIZEOF_FLOAT);
	871	}
	872
	873
	874	/**
	875	* Returns the green color component of a color from a vertex color set.
	876	*
	877	* @param vertex the vertex index
	878	* @param colorset the color set
	879	* @return the green color component
	880	*/
	881	public float getColorG(int vertex, int colorset) {
	882	if (!hasColors(colorset)) {
	883	throw new IllegalStateException("mesh has no colorset " + colorset);
	884	}
	885
	886	checkVertexIndexBounds(vertex);
	887	/* bound checks for colorset are done by java for us */
	888
	889	return m_colorsets[colorset].getFloat((vertex * 4 + 1) * SIZEOF_FLOAT);
	890	}
	891
	892
	893	/**
	894	* Returns the blue color component of a color from a vertex color set.
	895	*
	896	* @param vertex the vertex index
	897	* @param colorset the color set
	898	* @return the blue color component
	899	*/
	900	public float getColorB(int vertex, int colorset) {
	901	if (!hasColors(colorset)) {
	902	throw new IllegalStateException("mesh has no colorset " + colorset);
	903	}
	904
	905	checkVertexIndexBounds(vertex);
	906	/* bound checks for colorset are done by java for us */
	907
	908	return m_colorsets[colorset].getFloat((vertex * 4 + 2) * SIZEOF_FLOAT);
	909	}
	910
	911
	912	/**
	913	* Returns the alpha color component of a color from a vertex color set.
	914	*
	915	* @param vertex the vertex index
	916	* @param colorset the color set
	917	* @return the alpha color component
	918	*/
	919	public float getColorA(int vertex, int colorset) {
	920	if (!hasColors(colorset)) {
	921	throw new IllegalStateException("mesh has no colorset " + colorset);
	922	}
	923
	924	checkVertexIndexBounds(vertex);
	925	/* bound checks for colorset are done by java for us */
	926
	927	return m_colorsets[colorset].getFloat((vertex * 4 + 3) * SIZEOF_FLOAT);
	928	}
	929
	930
	931	/**
	932	* Returns the u component of a coordinate from a texture coordinate set.
	933	*
	934	* @param vertex the vertex index
	935	* @param coords the texture coordinate set
	936	* @return the u component
	937	*/
	938	public float getTexCoordU(int vertex, int coords) {
	939	if (!hasTexCoords(coords)) {
	940	throw new IllegalStateException(
	941	"mesh has no texture coordinate set " + coords);
	942	}
	943
	944	checkVertexIndexBounds(vertex);
	945	/* bound checks for coords are done by java for us */
	946
	947	return m_texcoords[coords].getFloat(
	948	vertex * m_numUVComponents[coords] * SIZEOF_FLOAT);
	949	}
	950
	951
	952	/**
	953	* Returns the v component of a coordinate from a texture coordinate set.<p>
	954	*
	955	* This method may only be called on 2- or 3-dimensional coordinate sets.
	956	* Call <code>getNumUVComponents(coords)</code> to determine how may
	957	* coordinate components are available.
	958	*
	959	* @param vertex the vertex index
	960	* @param coords the texture coordinate set
	961	* @return the v component
	962	*/
	963	public float getTexCoordV(int vertex, int coords) {
	964	if (!hasTexCoords(coords)) {
	965	throw new IllegalStateException(
	966	"mesh has no texture coordinate set " + coords);
	967	}
	968
	969	checkVertexIndexBounds(vertex);
	970
	971	/* bound checks for coords are done by java for us */
	972
	973	if (getNumUVComponents(coords) < 2) {
	974	throw new IllegalArgumentException("coordinate set " + coords +
	975	" does not contain 2D texture coordinates");
	976	}
	977
	978	return m_texcoords[coords].getFloat(
	979	(vertex * m_numUVComponents[coords] + 1) * SIZEOF_FLOAT);
	980	}
	981
	982
	983	/**
	984	* Returns the w component of a coordinate from a texture coordinate set.<p>
	985	*
	986	* This method may only be called on 3-dimensional coordinate sets.
	987	* Call <code>getNumUVComponents(coords)</code> to determine how may
	988	* coordinate components are available.
	989	*
	990	* @param vertex the vertex index
	991	* @param coords the texture coordinate set
	992	* @return the w component
	993	*/
	994	public float getTexCoordW(int vertex, int coords) {
	995	if (!hasTexCoords(coords)) {
	996	throw new IllegalStateException(
	997	"mesh has no texture coordinate set " + coords);
	998	}
	999
	1000	checkVertexIndexBounds(vertex);
	1001
	1002	/* bound checks for coords are done by java for us */
	1003
	1004	if (getNumUVComponents(coords) < 3) {
	1005	throw new IllegalArgumentException("coordinate set " + coords +
	1006	" does not contain 3D texture coordinates");
	1007	}
	1008
	1009	return m_texcoords[coords].getFloat(
	1010	(vertex * m_numUVComponents[coords] + 1) * SIZEOF_FLOAT);
	1011	}
	1012	// }}
	1013
	1014
	1015	// {{ Wrapped API
	1016	/**
	1017	* Returns the vertex position as 3-dimensional vector.<p>
	1018	*
	1019	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	1020	* for details on wrappers).<p>
	1021	*
	1022	* The built-in behavior is to return a {@link AiVector}.
	1023	*
	1024	* @param vertex the vertex index
	1025	* @param wrapperProvider the wrapper provider (used for type inference)
	1026	* @return the position wrapped as object
	1027	*/
	1028	public <V3, M4, C, N, Q> V3 getWrappedPosition(int vertex,
	1029	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	1030
	1031	if (!hasPositions()) {
	1032	throw new IllegalStateException("mesh has no positions");
	1033	}
	1034
	1035	checkVertexIndexBounds(vertex);
	1036
	1037	return wrapperProvider.wrapVector3f(m_vertices,
	1038	vertex * 3 * SIZEOF_FLOAT, 3);
	1039	}
	1040
	1041
	1042	/**
	1043	* Returns the vertex normal as 3-dimensional vector.<p>
	1044	*
	1045	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	1046	* for details on wrappers).<p>
	1047	*
	1048	* The built-in behavior is to return a {@link AiVector}.
	1049	*
	1050	* @param vertex the vertex index
	1051	* @param wrapperProvider the wrapper provider (used for type inference)
	1052	* @return the normal wrapped as object
	1053	*/
	1054	public <V3, M4, C, N, Q> V3 getWrappedNormal(int vertex,
	1055	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	1056
	1057	if (!hasNormals()) {
	1058	throw new IllegalStateException("mesh has no positions");
	1059	}
	1060
	1061	checkVertexIndexBounds(vertex);
	1062
	1063	return wrapperProvider.wrapVector3f(m_normals,
	1064	vertex * 3 * SIZEOF_FLOAT, 3);
	1065	}
	1066
	1067
	1068	/**
	1069	* Returns the vertex tangent as 3-dimensional vector.<p>
	1070	*
	1071	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	1072	* for details on wrappers).<p>
	1073	*
	1074	* The built-in behavior is to return a {@link AiVector}.
	1075	*
	1076	* @param vertex the vertex index
	1077	* @param wrapperProvider the wrapper provider (used for type inference)
	1078	* @return the tangent wrapped as object
	1079	*/
	1080	public <V3, M4, C, N, Q> V3 getWrappedTangent(int vertex,
	1081	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	1082
	1083	if (!hasTangentsAndBitangents()) {
	1084	throw new IllegalStateException("mesh has no tangents");
	1085	}
	1086
	1087	checkVertexIndexBounds(vertex);
	1088
	1089	return wrapperProvider.wrapVector3f(m_tangents,
	1090	vertex * 3 * SIZEOF_FLOAT, 3);
	1091	}
	1092
	1093
	1094	/**
	1095	* Returns the vertex bitangent as 3-dimensional vector.<p>
	1096	*
	1097	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	1098	* for details on wrappers).<p>
	1099	*
	1100	* The built-in behavior is to return a {@link AiVector}.
	1101	*
	1102	* @param vertex the vertex index
	1103	* @param wrapperProvider the wrapper provider (used for type inference)
	1104	* @return the bitangent wrapped as object
	1105	*/
	1106	public <V3, M4, C, N, Q> V3 getWrappedBitangent(int vertex,
	1107	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	1108
	1109	if (!hasTangentsAndBitangents()) {
	1110	throw new IllegalStateException("mesh has no bitangents");
	1111	}
	1112
	1113	checkVertexIndexBounds(vertex);
	1114
	1115	return wrapperProvider.wrapVector3f(m_bitangents,
	1116	vertex * 3 * SIZEOF_FLOAT, 3);
	1117	}
	1118
	1119
	1120	/**
	1121	* Returns the vertex color.<p>
	1122	*
	1123	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	1124	* for details on wrappers).<p>
	1125	*
	1126	* The built-in behavior is to return a {@link AiColor}.
	1127	*
	1128	* @param vertex the vertex index
	1129	* @param colorset the color set
	1130	* @param wrapperProvider the wrapper provider (used for type inference)
	1131	* @return the vertex color wrapped as object
	1132	*/
	1133	public <V3, M4, C, N, Q> C getWrappedColor(int vertex, int colorset,
	1134	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	1135
	1136	if (!hasColors(colorset)) {
	1137	throw new IllegalStateException("mesh has no colorset " + colorset);
	1138	}
	1139
	1140	checkVertexIndexBounds(vertex);
	1141
	1142	return wrapperProvider.wrapColor(
	1143	m_colorsets[colorset], vertex * 4 * SIZEOF_FLOAT);
	1144	}
	1145
	1146
	1147	/**
	1148	* Returns the texture coordinates as n-dimensional vector.<p>
	1149	*
	1150	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	1151	* for details on wrappers).<p>
	1152	*
	1153	* The built-in behavior is to return a {@link AiVector}.
	1154	*
	1155	* @param vertex the vertex index
	1156	* @param coords the texture coordinate set
	1157	* @param wrapperProvider the wrapper provider (used for type inference)
	1158	* @return the texture coordinates wrapped as object
	1159	*/
	1160	public <V3, M4, C, N, Q> V3 getWrappedTexCoords(int vertex, int coords,
	1161	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	1162
	1163	if (!hasTexCoords(coords)) {
	1164	throw new IllegalStateException(
	1165	"mesh has no texture coordinate set " + coords);
	1166	}
	1167
	1168	checkVertexIndexBounds(vertex);
	1169
	1170	return wrapperProvider.wrapVector3f(m_texcoords[coords],
	1171	vertex * 3 * SIZEOF_FLOAT, getNumUVComponents(coords));
	1172	}
	1173	// }}
	1174
	1175
	1176	// {{ Helpers
	1177	/**
	1178	* Throws an exception if the vertex index is not in the allowed range.
	1179	*
	1180	* @param vertex the index to check
	1181	*/
	1182	private void checkVertexIndexBounds(int vertex) {
	1183	if (vertex >= m_numVertices \|\| vertex < 0) {
	1184	throw new IndexOutOfBoundsException("Index: " + vertex +
	1185	", Size: " + m_numVertices);
	1186	}
	1187	}
	1188	// }}
	1189
	1190	// {{ JNI interface
	1191	/*
	1192	* Channel constants used by allocate data channel. Do not modify or use
	1193	* as these may change at will
	1194	*/
	1195	// CHECKSTYLE:OFF
	1196	private static final int NORMALS = 0;
	1197	private static final int TANGENTS = 1;
	1198	private static final int BITANGENTS = 2;
	1199	private static final int COLORSET = 3;
	1200	private static final int TEXCOORDS_1D = 4;
	1201	private static final int TEXCOORDS_2D = 5;
	1202	private static final int TEXCOORDS_3D = 6;
	1203	// CHECKSTYLE:ON
	1204
	1205
	1206	/**
	1207	* This method is used by JNI. Do not call or modify.<p>
	1208	*
	1209	* Sets the primitive types enum set
	1210	*
	1211	* @param types the bitwise or'ed c/c++ aiPrimitiveType enum values
	1212	*/
	1213	@SuppressWarnings("unused")
	1214	private void setPrimitiveTypes(int types) {
	1215	AiPrimitiveType.fromRawValue(m_primitiveTypes, types);
	1216	}
	1217
	1218
	1219	/**
	1220	* This method is used by JNI. Do not call or modify.<p>
	1221	*
	1222	* Allocates byte buffers
	1223	*
	1224	* @param numVertices the number of vertices in the mesh
	1225	* @param numFaces the number of faces in the mesh
	1226	* @param optimizedFaces set true for optimized face representation
	1227	* @param faceBufferSize size of face buffer for non-optimized face
	1228	* representation
	1229	*/
	1230	@SuppressWarnings("unused")
	1231	private void allocateBuffers(int numVertices, int numFaces,
	1232	boolean optimizedFaces, int faceBufferSize) {
	1233	/*
	1234	* the allocated buffers are native order direct byte buffers, so they
	1235	* can be passed directly to LWJGL or similar graphics APIs
	1236	*/
	1237
	1238	/* ensure face optimization is possible */
	1239	if (optimizedFaces && !isPureTriangle()) {
	1240	throw new IllegalArgumentException("mesh is not purely triangular");
	1241	}
	1242
	1243
	1244	m_numVertices = numVertices;
	1245	m_numFaces = numFaces;
	1246
	1247
	1248	/* allocate for each vertex 3 floats */
	1249	if (m_numVertices > 0) {
	1250	m_vertices = ByteBuffer.allocateDirect(numVertices * 3 *
	1251	SIZEOF_FLOAT);
	1252	m_vertices.order(ByteOrder.nativeOrder());
	1253	}
	1254
	1255
	1256	if (m_numFaces > 0) {
	1257	/* for optimized faces allocate 3 integers per face */
	1258	if (optimizedFaces) {
	1259	m_faces = ByteBuffer.allocateDirect(numFaces * 3 * SIZEOF_INT);
	1260	m_faces.order(ByteOrder.nativeOrder());
	1261	}
	1262	/*
	1263	* for non-optimized faces allocate the passed in buffer size
	1264	* and allocate the face index structure
	1265	*/
	1266	else {
	1267	m_faces = ByteBuffer.allocateDirect(faceBufferSize);
	1268	m_faces.order(ByteOrder.nativeOrder());
	1269
	1270	m_faceOffsets = ByteBuffer.allocateDirect(numFaces *
	1271	SIZEOF_INT);
	1272	m_faceOffsets.order(ByteOrder.nativeOrder());
	1273	}
	1274	}
	1275	}
	1276
	1277
	1278	/**
	1279	* This method is used by JNI. Do not call or modify.<p>
	1280	*
	1281	* Allocates a byte buffer for a vertex data channel
	1282	*
	1283	* @param channelType the channel type
	1284	* @param channelIndex sub-index, used for types that can have multiple
	1285	* channels, such as texture coordinates
	1286	*/
	1287	@SuppressWarnings("unused")
	1288	private void allocateDataChannel(int channelType, int channelIndex) {
	1289	switch (channelType) {
	1290	case NORMALS:
	1291	m_normals = ByteBuffer.allocateDirect(
	1292	m_numVertices * 3 * SIZEOF_FLOAT);
	1293	m_normals.order(ByteOrder.nativeOrder());
	1294	break;
	1295	case TANGENTS:
	1296	m_tangents = ByteBuffer.allocateDirect(
	1297	m_numVertices * 3 * SIZEOF_FLOAT);
	1298	m_tangents.order(ByteOrder.nativeOrder());
	1299	break;
	1300	case BITANGENTS:
	1301	m_bitangents = ByteBuffer.allocateDirect(
	1302	m_numVertices * 3 * SIZEOF_FLOAT);
	1303	m_bitangents.order(ByteOrder.nativeOrder());
	1304	break;
	1305	case COLORSET:
	1306	m_colorsets[channelIndex] = ByteBuffer.allocateDirect(
	1307	m_numVertices * 4 * SIZEOF_FLOAT);
	1308	m_colorsets[channelIndex].order(ByteOrder.nativeOrder());
	1309	break;
	1310	case TEXCOORDS_1D:
	1311	m_numUVComponents[channelIndex] = 1;
	1312	m_texcoords[channelIndex] = ByteBuffer.allocateDirect(
	1313	m_numVertices * 1 * SIZEOF_FLOAT);
	1314	m_texcoords[channelIndex].order(ByteOrder.nativeOrder());
	1315	break;
	1316	case TEXCOORDS_2D:
	1317	m_numUVComponents[channelIndex] = 2;
	1318	m_texcoords[channelIndex] = ByteBuffer.allocateDirect(
	1319	m_numVertices * 2 * SIZEOF_FLOAT);
	1320	m_texcoords[channelIndex].order(ByteOrder.nativeOrder());
	1321	break;
	1322	case TEXCOORDS_3D:
	1323	m_numUVComponents[channelIndex] = 3;
	1324	m_texcoords[channelIndex] = ByteBuffer.allocateDirect(
	1325	m_numVertices * 3 * SIZEOF_FLOAT);
	1326	m_texcoords[channelIndex].order(ByteOrder.nativeOrder());
	1327	break;
	1328	default:
	1329	throw new IllegalArgumentException("unsupported channel type");
	1330	}
	1331	}
	1332	// }}
	1333
	1334
	1335	/**
	1336	* The primitive types used by this mesh.
	1337	*/
	1338	private final Set<AiPrimitiveType> m_primitiveTypes =
	1339	EnumSet.noneOf(AiPrimitiveType.class);
	1340
	1341
	1342	/**
	1343	* Number of vertices in this mesh.
	1344	*/
	1345	private int m_numVertices = 0;
	1346
	1347
	1348	/**
	1349	* Number of faces in this mesh.
	1350	*/
	1351	private int m_numFaces = 0;
	1352
	1353
	1354	/**
	1355	* Material used by this mesh.
	1356	*/
	1357	private int m_materialIndex = -1;
	1358
	1359
	1360	/**
	1361	* The name of the mesh.
	1362	*/
	1363	private String m_name = "";
	1364
	1365
	1366	/**
	1367	* Buffer for vertex position data.
	1368	*/
	1369	private ByteBuffer m_vertices = null;
	1370
	1371
	1372	/**
	1373	* Buffer for faces/ indices.
	1374	*/
	1375	private ByteBuffer m_faces = null;
	1376
	1377
	1378	/**
	1379	* Index structure for m_faces.<p>
	1380	*
	1381	* Only used by meshes that are not pure triangular
	1382	*/
	1383	private ByteBuffer m_faceOffsets = null;
	1384
	1385
	1386	/**
	1387	* Buffer for normals.
	1388	*/
	1389	private ByteBuffer m_normals = null;
	1390
	1391
	1392	/**
	1393	* Buffer for tangents.
	1394	*/
	1395	private ByteBuffer m_tangents = null;
	1396
	1397
	1398	/**
	1399	* Buffer for bitangents.
	1400	*/
	1401	private ByteBuffer m_bitangents = null;
	1402
	1403
	1404	/**
	1405	* Vertex colors.
	1406	*/
	1407	private ByteBuffer[] m_colorsets =
	1408	new ByteBuffer[JassimpConfig.MAX_NUMBER_COLORSETS];
	1409
	1410
	1411	/**
	1412	* Number of UV components for each texture coordinate set.
	1413	*/
	1414	private int[] m_numUVComponents = new int[JassimpConfig.MAX_NUMBER_TEXCOORDS];
	1415
	1416
	1417	/**
	1418	* Texture coordinates.
	1419	*/
	1420	private ByteBuffer[] m_texcoords =
	1421	new ByteBuffer[JassimpConfig.MAX_NUMBER_TEXCOORDS];
	1422
	1423
	1424	/**
	1425	* Bones.
	1426	*/
	1427	private final List<AiBone> m_bones = new ArrayList<AiBone>();
	1428	}

+49

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port/jassimp/jassimp/src/jassimp/AiMeshAnim.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* This class is a stub - mesh animations are currently not supported.
	45	*/
	46	public class AiMeshAnim {
	47
	48	}

+228

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port/jassimp/jassimp/src/jassimp/AiNode.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.util.ArrayList;
	43	import java.util.List;
	44
	45
	46	/**
	47	* A node in the imported hierarchy.<p>
	48	*
	49	* Each node has name, a parent node (except for the root node),
	50	* a transformation relative to its parent and possibly several child nodes.
	51	* Simple file formats don't support hierarchical structures - for these formats
	52	* the imported scene consists of only a single root node without children.
	53	*/
	54	public final class AiNode {
	55	/**
	56	* Constructor.
	57	*
	58	* @param parent the parent node, may be null
	59	* @param transform the transform matrix
	60	* @param meshReferences array of mesh references
	61	* @param name the name of the node
	62	*/
	63	AiNode(AiNode parent, Object transform, int[] meshReferences, String name) {
	64	m_parent = parent;
	65	m_transformationMatrix = transform;
	66	m_meshReferences = meshReferences;
	67	m_name = name;
	68
	69	if (null != m_parent) {
	70	m_parent.addChild(this);
	71	}
	72	}
	73
	74
	75	/**
	76	* Returns the name of this node.
	77	*
	78	* @return the name
	79	*/
	80	public String getName() {
	81	return m_name;
	82	}
	83
	84
	85	/**
	86	* Returns the number of child nodes.<p>
	87	*
	88	* This method exists for compatibility reasons with the native assimp API.
	89	* The returned value is identical to <code>getChildren().size()</code>
	90	*
	91	* @return the number of child nodes
	92	*/
	93	public int getNumChildren() {
	94	return getChildren().size();
	95	}
	96
	97
	98	/**
	99	* Returns a 4x4 matrix that specifies the transformation relative to
	100	* the parent node.<p>
	101	*
	102	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	103	* for details on wrappers).<p>
	104	*
	105	* The built in behavior is to return an {@link AiMatrix4f}.
	106	*
	107	* @param wrapperProvider the wrapper provider (used for type inference)
	108	*
	109	* @return a matrix
	110	*/
	111	@SuppressWarnings("unchecked")
	112	public <V3, M4, C, N, Q> M4 getTransform(AiWrapperProvider<V3, M4, C, N, Q>
	113	wrapperProvider) {
	114
	115	return (M4) m_transformationMatrix;
	116	}
	117
	118
	119	/**
	120	* Returns the children of this node.
	121	*
	122	* @return the children, or an empty list if the node has no children
	123	*/
	124	public List<AiNode> getChildren() {
	125	return m_children;
	126	}
	127
	128
	129	/**
	130	* Returns the parent node.
	131	*
	132	* @return the parent, or null of the node has no parent
	133	*/
	134	public AiNode getParent() {
	135	return m_parent;
	136	}
	137
	138
	139	/**
	140	* Searches the node hierarchy below (and including) this node for a node
	141	* with the specified name.
	142	*
	143	* @param name the name to look for
	144	* @return the first node with the given name, or null if no such node
	145	* exists
	146	*/
	147	public AiNode findNode(String name) {
	148	/* classic recursive depth first search */
	149
	150	if (m_name.equals(name)) {
	151	return this;
	152	}
	153
	154	for (AiNode child : m_children) {
	155	if (null != child.findNode(name)) {
	156	return child;
	157	}
	158	}
	159
	160	return null;
	161	}
	162
	163
	164	/**
	165	* Returns the number of meshes references by this node.<p>
	166	*
	167	* This method exists for compatibility with the native assimp API.
	168	* The returned value is identical to <code>getMeshes().length</code>
	169	*
	170	* @return the number of references
	171	*/
	172	public int getNumMeshes() {
	173	return m_meshReferences.length;
	174	}
	175
	176
	177	/**
	178	* Returns the meshes referenced by this node.<p>
	179	*
	180	* Each entry is an index into the mesh list stored in {@link AiScene}.
	181	*
	182	* @return an array of indices
	183	*/
	184	public int[] getMeshes() {
	185	return m_meshReferences;
	186	}
	187
	188
	189	/**
	190	* Adds a child node.
	191	*
	192	* @param child the child to add
	193	*/
	194	void addChild(AiNode child) {
	195	m_children.add(child);
	196	}
	197
	198
	199	/**
	200	* Name.
	201	*/
	202	private final String m_name;
	203
	204
	205	/**
	206	* Parent node.
	207	*/
	208	private final AiNode m_parent;
	209
	210
	211	/**
	212	* Mesh references.
	213	*/
	214	private final int[] m_meshReferences;
	215
	216
	217	/**
	218	* List of children.
	219	*/
	220	private final List<AiNode> m_children = new ArrayList<AiNode>();
	221
	222
	223	/**
	224	* Buffer for transformation matrix.
	225	*/
	226	private final Object m_transformationMatrix;
	227	}

+502

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port/jassimp/jassimp/src/jassimp/AiNodeAnim.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.nio.ByteBuffer;
	43	import java.nio.ByteOrder;
	44
	45
	46	/**
	47	* Describes the animation of a single node.<p>
	48	*
	49	* The node name ({@link #getNodeName()} specifies the bone/node which is
	50	* affected by this animation channel. The keyframes are given in three
	51	* separate series of values, one each for position, rotation and scaling.
	52	* The transformation matrix computed from these values replaces the node's
	53	* original transformation matrix at a specific time.<p>
	54	*
	55	* This means all keys are absolute and not relative to the bone default pose.
	56	* The order in which the transformations are applied is - as usual -
	57	* scaling, rotation, translation.<p>
	58	*
	59	* <b>Note:</b> All keys are returned in their correct, chronological order.
	60	* Duplicate keys don't pass the validation step. Most likely there
	61	* will be no negative time values, but they are not forbidden also (so
	62	* implementations need to cope with them!)<p>
	63	*
	64	* Like {@link AiMesh}, the animation related classes offer a Buffer API, a
	65	* Direct API and a wrapped API. Please consult the documentation of
	66	* {@link AiMesh} for a description and comparison of these APIs.
	67	*/
	68	public final class AiNodeAnim {
	69	/**
	70	* Size of one position key entry (includes padding).
	71	*/
	72	private static final int POS_KEY_SIZE = 24;
	73
	74	/**
	75	* Size of one rotation key entry.
	76	*/
	77	private static final int ROT_KEY_SIZE = 24;
	78
	79	/**
	80	* Size of one scaling key entry (includes padding).
	81	*/
	82	private static final int SCALE_KEY_SIZE = 24;
	83
	84
	85	/**
	86	* Constructor.
	87	*
	88	* @param nodeName name of corresponding scene graph node
	89	* @param numPosKeys number of position keys
	90	* @param numRotKeys number of rotation keys
	91	* @param numScaleKeys number of scaling keys
	92	* @param preBehavior behavior before animation start
	93	* @param postBehavior behavior after animation end
	94	*/
	95	AiNodeAnim(String nodeName, int numPosKeys, int numRotKeys,
	96	int numScaleKeys, int preBehavior, int postBehavior) {
	97
	98	m_nodeName = nodeName;
	99	m_numPosKeys = numPosKeys;
	100	m_numRotKeys = numRotKeys;
	101	m_numScaleKeys = numScaleKeys;
	102	m_preState = AiAnimBehavior.fromRawValue(preBehavior);
	103	m_postState = AiAnimBehavior.fromRawValue(postBehavior);
	104
	105	/* c data is padded -> 24 bytes with 20 bytes data */
	106	m_posKeys = ByteBuffer.allocateDirect(numPosKeys * POS_KEY_SIZE);
	107	m_posKeys.order(ByteOrder.nativeOrder());
	108
	109	m_rotKeys = ByteBuffer.allocateDirect(numRotKeys * 24);
	110	m_rotKeys.order(ByteOrder.nativeOrder());
	111
	112	m_scaleKeys = ByteBuffer.allocateDirect(numScaleKeys * 24);
	113	m_scaleKeys.order(ByteOrder.nativeOrder());
	114	}
	115
	116
	117	/**
	118	* Returns the name of the scene graph node affected by this animation.<p>
	119	*
	120	* The node must exist and it must be unique.
	121	*
	122	* @return the name of the affected node
	123	*/
	124	public String getNodeName() {
	125	return m_nodeName;
	126	}
	127
	128
	129	/**
	130	* Returns the number of position keys.
	131	*
	132	* @return the number of position keys
	133	*/
	134	public int getNumPosKeys() {
	135	return m_numPosKeys;
	136	}
	137
	138
	139	/**
	140	* Returns the buffer with position keys of this animation channel.<p>
	141	*
	142	* Position keys consist of a time value (double) and a position (3D vector
	143	* of floats), resulting in a total of 24 bytes per entry with padding.
	144	* The buffer contains {@link #getNumPosKeys()} of these entries.<p>
	145	*
	146	* If there are position keys, there will also be at least one
	147	* scaling and one rotation key.<p>
	148	*
	149	* @return a native order, direct ByteBuffer
	150	*/
	151	public ByteBuffer getPosKeyBuffer() {
	152	ByteBuffer buf = m_posKeys.duplicate();
	153	buf.order(ByteOrder.nativeOrder());
	154
	155	return buf;
	156	}
	157
	158
	159	/**
	160	* Returns the time component of the specified position key.
	161	*
	162	* @param keyIndex the index of the position key
	163	* @return the time component
	164	*/
	165	public double getPosKeyTime(int keyIndex) {
	166	return m_posKeys.getDouble(POS_KEY_SIZE * keyIndex);
	167	}
	168
	169
	170	/**
	171	* Returns the position x component of the specified position key.
	172	*
	173	* @param keyIndex the index of the position key
	174	* @return the x component
	175	*/
	176	public float getPosKeyX(int keyIndex) {
	177	return m_posKeys.getFloat(POS_KEY_SIZE * keyIndex + 8);
	178	}
	179
	180
	181	/**
	182	* Returns the position y component of the specified position key.
	183	*
	184	* @param keyIndex the index of the position key
	185	* @return the y component
	186	*/
	187	public float getPosKeyY(int keyIndex) {
	188	return m_posKeys.getFloat(POS_KEY_SIZE * keyIndex + 12);
	189	}
	190
	191
	192	/**
	193	* Returns the position z component of the specified position key.
	194	*
	195	* @param keyIndex the index of the position key
	196	* @return the z component
	197	*/
	198	public float getPosKeyZ(int keyIndex) {
	199	return m_posKeys.getFloat(POS_KEY_SIZE * keyIndex + 16);
	200	}
	201
	202
	203	/**
	204	* Returns the position as vector.<p>
	205	*
	206	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	207	* for details on wrappers).<p>
	208	*
	209	* The built in behavior is to return an {@link AiVector}.
	210	*
	211	* @param wrapperProvider the wrapper provider (used for type inference)
	212	*
	213	* @return the position as vector
	214	*/
	215	public <V3, M4, C, N, Q> V3 getPosKeyVector(int keyIndex,
	216	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	217
	218	return wrapperProvider.wrapVector3f(m_posKeys,
	219	POS_KEY_SIZE * keyIndex + 8, 3);
	220	}
	221
	222
	223	/**
	224	* Returns the number of rotation keys.
	225	*
	226	* @return the number of rotation keys
	227	*/
	228	public int getNumRotKeys() {
	229	return m_numRotKeys;
	230	}
	231
	232
	233	/**
	234	* Returns the buffer with rotation keys of this animation channel.<p>
	235	*
	236	* Rotation keys consist of a time value (double) and a quaternion (4D
	237	* vector of floats), resulting in a total of 24 bytes per entry. The
	238	* buffer contains {@link #getNumRotKeys()} of these entries.<p>
	239	*
	240	* If there are rotation keys, there will also be at least one
	241	* scaling and one position key.
	242	*
	243	* @return a native order, direct ByteBuffer
	244	*/
	245	public ByteBuffer getRotKeyBuffer() {
	246	ByteBuffer buf = m_rotKeys.duplicate();
	247	buf.order(ByteOrder.nativeOrder());
	248
	249	return buf;
	250	}
	251
	252
	253	/**
	254	* Returns the time component of the specified rotation key.
	255	*
	256	* @param keyIndex the index of the position key
	257	* @return the time component
	258	*/
	259	public double getRotKeyTime(int keyIndex) {
	260	return m_rotKeys.getDouble(ROT_KEY_SIZE * keyIndex);
	261	}
	262
	263
	264	/**
	265	* Returns the rotation w component of the specified rotation key.
	266	*
	267	* @param keyIndex the index of the position key
	268	* @return the w component
	269	*/
	270	public float getRotKeyW(int keyIndex) {
	271	return m_rotKeys.getFloat(ROT_KEY_SIZE * keyIndex + 8);
	272	}
	273
	274
	275	/**
	276	* Returns the rotation x component of the specified rotation key.
	277	*
	278	* @param keyIndex the index of the position key
	279	* @return the x component
	280	*/
	281	public float getRotKeyX(int keyIndex) {
	282	return m_rotKeys.getFloat(ROT_KEY_SIZE * keyIndex + 12);
	283	}
	284
	285
	286	/**
	287	* Returns the rotation y component of the specified rotation key.
	288	*
	289	* @param keyIndex the index of the position key
	290	* @return the y component
	291	*/
	292	public float getRotKeyY(int keyIndex) {
	293	return m_rotKeys.getFloat(ROT_KEY_SIZE * keyIndex + 16);
	294	}
	295
	296
	297	/**
	298	* Returns the rotation z component of the specified rotation key.
	299	*
	300	* @param keyIndex the index of the position key
	301	* @return the z component
	302	*/
	303	public float getRotKeyZ(int keyIndex) {
	304	return m_rotKeys.getFloat(ROT_KEY_SIZE * keyIndex + 20);
	305	}
	306
	307
	308	/**
	309	* Returns the rotation as quaternion.<p>
	310	*
	311	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	312	* for details on wrappers).<p>
	313	*
	314	* The built in behavior is to return an {@link AiQuaternion}.
	315	*
	316	* @param wrapperProvider the wrapper provider (used for type inference)
	317	*
	318	* @return the rotation as quaternion
	319	*/
	320	public <V3, M4, C, N, Q> Q getRotKeyQuaternion(int keyIndex,
	321	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	322
	323	return wrapperProvider.wrapQuaternion(m_rotKeys,
	324	ROT_KEY_SIZE * keyIndex + 8);
	325	}
	326
	327
	328	/**
	329	* Returns the number of scaling keys.
	330	*
	331	* @return the number of scaling keys
	332	*/
	333	public int getNumScaleKeys() {
	334	return m_numScaleKeys;
	335	}
	336
	337
	338	/**
	339	* Returns the buffer with scaling keys of this animation channel.<p>
	340	*
	341	* Scaling keys consist of a time value (double) and a 3D vector of floats,
	342	* resulting in a total of 24 bytes per entry with padding. The buffer
	343	* contains {@link #getNumScaleKeys()} of these entries.<p>
	344	*
	345	* If there are scaling keys, there will also be at least one
	346	* position and one rotation key.
	347	*
	348	* @return a native order, direct ByteBuffer
	349	*/
	350	public ByteBuffer getScaleKeyBuffer() {
	351	ByteBuffer buf = m_scaleKeys.duplicate();
	352	buf.order(ByteOrder.nativeOrder());
	353
	354	return buf;
	355	}
	356
	357
	358	/**
	359	* Returns the time component of the specified scaling key.
	360	*
	361	* @param keyIndex the index of the position key
	362	* @return the time component
	363	*/
	364	public double getScaleKeyTime(int keyIndex) {
	365	return m_scaleKeys.getDouble(SCALE_KEY_SIZE * keyIndex);
	366	}
	367
	368
	369	/**
	370	* Returns the scaling x component of the specified scaling key.
	371	*
	372	* @param keyIndex the index of the position key
	373	* @return the x component
	374	*/
	375	public float getScaleKeyX(int keyIndex) {
	376	return m_scaleKeys.getFloat(SCALE_KEY_SIZE * keyIndex + 8);
	377	}
	378
	379
	380	/**
	381	* Returns the scaling y component of the specified scaling key.
	382	*
	383	* @param keyIndex the index of the position key
	384	* @return the y component
	385	*/
	386	public float getScaleKeyY(int keyIndex) {
	387	return m_scaleKeys.getFloat(SCALE_KEY_SIZE * keyIndex + 12);
	388	}
	389
	390
	391	/**
	392	* Returns the scaling z component of the specified scaling key.
	393	*
	394	* @param keyIndex the index of the position key
	395	* @return the z component
	396	*/
	397	public float getScaleKeyZ(int keyIndex) {
	398	return m_scaleKeys.getFloat(SCALE_KEY_SIZE * keyIndex + 16);
	399	}
	400
	401
	402	/**
	403	* Returns the scaling factor as vector.<p>
	404	*
	405	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	406	* for details on wrappers).<p>
	407	*
	408	* The built in behavior is to return an {@link AiVector}.
	409	*
	410	* @param wrapperProvider the wrapper provider (used for type inference)
	411	*
	412	* @return the scaling factor as vector
	413	*/
	414	public <V3, M4, C, N, Q> V3 getScaleKeyVector(int keyIndex,
	415	AiWrapperProvider<V3, M4, C, N, Q> wrapperProvider) {
	416
	417	return wrapperProvider.wrapVector3f(m_scaleKeys,
	418	SCALE_KEY_SIZE * keyIndex + 8, 3);
	419	}
	420
	421
	422	/**
	423	* Defines how the animation behaves before the first key is encountered.
	424	* <p>
	425	*
	426	* The default value is {@link AiAnimBehavior#DEFAULT} (the original
	427	* transformation matrix of the affected node is used).
	428	*
	429	* @return the animation behavior before the first key
	430	*/
	431	public AiAnimBehavior getPreState() {
	432	return m_preState;
	433	}
	434
	435
	436	/**
	437	* Defines how the animation behaves after the last key was processed.<p>
	438	*
	439	* The default value is {@link AiAnimBehavior#DEFAULT} (the original
	440	* transformation matrix of the affected node is taken).
	441	*
	442	* @return the animation behavior before after the last key
	443	*/
	444	public AiAnimBehavior getPostState() {
	445	return m_postState;
	446	}
	447
	448
	449	/**
	450	* Node name.
	451	*/
	452	private final String m_nodeName;
	453
	454
	455	/**
	456	* Number of position keys.
	457	*/
	458	private final int m_numPosKeys;
	459
	460
	461	/**
	462	* Buffer with position keys.
	463	*/
	464	private ByteBuffer m_posKeys;
	465
	466
	467	/**
	468	* Number of rotation keys.
	469	*/
	470	private final int m_numRotKeys;
	471
	472
	473	/**
	474	* Buffer for rotation keys.
	475	*/
	476	private ByteBuffer m_rotKeys;
	477
	478
	479	/**
	480	* Number of scaling keys.
	481	*/
	482	private final int m_numScaleKeys;
	483
	484
	485	/**
	486	* Buffer for scaling keys.
	487	*/
	488	private ByteBuffer m_scaleKeys;
	489
	490
	491	/**
	492	* Pre animation behavior.
	493	*/
	494	private final AiAnimBehavior m_preState;
	495
	496
	497	/**
	498	* Post animation behavior.
	499	*/
	500	private final AiAnimBehavior m_postState;
	501	}

+571

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port/jassimp/jassimp/src/jassimp/AiPostProcessSteps.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.util.Set;
	43
	44	/**
	45	* Enumerates the post processing steps supported by assimp.
	46	*/
	47	public enum AiPostProcessSteps {
	48
	49	/**
	50	* Calculates the tangents and bitangents for the imported meshes.
	51	* <p>
	52	*
	53	* Does nothing if a mesh does not have normals. You might want this post
	54	* processing step to be executed if you plan to use tangent space
	55	* calculations such as normal mapping applied to the meshes. There's a
	56	* config setting, <tt>#AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE</tt>, which
	57	* allows you to specify a maximum smoothing angle for the algorithm.
	58	* However, usually you'll want to leave it at the default value.
	59	*/
	60	CALC_TANGENT_SPACE(0x1),
	61
	62
	63	/**
	64	* Identifies and joins identical vertex data sets within all imported
	65	* meshes.<p>
	66	*
	67	* After this step is run, each mesh contains unique vertices, so a vertex
	68	* may be used by multiple faces. You usually want to use this post
	69	* processing step. If your application deals with indexed geometry, this
	70	* step is compulsory or you'll just waste rendering time. <b>If this flag
	71	* is not specified</b>, no vertices are referenced by more than one face
	72	* and <b>no index buffer is required</b> for rendering.
	73	*/
	74	JOIN_IDENTICAL_VERTICES(0x2),
	75
	76
	77	/**
	78	* Converts all the imported data to a left-handed coordinate space.<p>
	79	*
	80	* By default the data is returned in a right-handed coordinate space (which
	81	* OpenGL prefers). In this space, +X points to the right, +Z points towards
	82	* the viewer, and +Y points upwards. In the DirectX coordinate space +X
	83	* points to the right, +Y points upwards, and +Z points away from the
	84	* viewer.<p>
	85	*
	86	* You'll probably want to consider this flag if you use Direct3D for
	87	* rendering. The #ConvertToLeftHanded flag supersedes this
	88	* setting and bundles all conversions typically required for D3D-based
	89	* applications.
	90	*/
	91	MAKE_LEFT_HANDED(0x4),
	92
	93
	94	/**
	95	* Triangulates all faces of all meshes.<p>
	96	*
	97	* By default the imported mesh data might contain faces with more than 3
	98	* indices. For rendering you'll usually want all faces to be triangles.
	99	* This post processing step splits up faces with more than 3 indices into
	100	* triangles. Line and point primitives are not modified! If you want
	101	* 'triangles only' with no other kinds of primitives, try the following
	102	* solution:
	103	* <ul>
	104	* <li>Specify both #Triangulate and #SortByPType
	105	* <li>Ignore all point and line meshes when you process assimp's output
	106	* </ul>
	107	*/
	108	TRIANGULATE(0x8),
	109
	110
	111	/**
	112	* Removes some parts of the data structure (animations, materials, light
	113	* sources, cameras, textures, vertex components).<p>
	114	*
	115	* The components to be removed are specified in a separate configuration
	116	* option, <tt>#AI_CONFIG_PP_RVC_FLAGS</tt>. This is quite useful if you
	117	* don't need all parts of the output structure. Vertex colors are rarely
	118	* used today for example... Calling this step to remove unneeded data from
	119	* the pipeline as early as possible results in increased performance and a
	120	* more optimized output data structure. This step is also useful if you
	121	* want to force Assimp to recompute normals or tangents. The corresponding
	122	* steps don't recompute them if they're already there (loaded from the
	123	* source asset). By using this step you can make sure they are NOT there.
	124	* <p>
	125	*
	126	* This flag is a poor one, mainly because its purpose is usually
	127	* misunderstood. Consider the following case: a 3D model has been exported
	128	* from a CAD app, and it has per-face vertex colors. Vertex positions can't
	129	* be shared, thus the #JoinIdenticalVertices step fails to
	130	* optimize the data because of these nasty little vertex colors. Most apps
	131	* don't even process them, so it's all for nothing. By using this step,
	132	* unneeded components are excluded as early as possible thus opening more
	133	* room for internal optimizations.
	134	*/
	135	REMOVE_COMPONENT(0x10),
	136
	137
	138	/**
	139	* Generates normals for all faces of all meshes.<p>
	140	*
	141	* This is ignored if normals are already there at the time this flag is
	142	* evaluated. Model importers try to load them from the source file, so
	143	* they're usually already there. Face normals are shared between all points
	144	* of a single face, so a single point can have multiple normals, which
	145	* forces the library to duplicate vertices in some cases.
	146	* #JoinIdenticalVertices is senseless then.<p>
	147	*
	148	* This flag may not be specified together with {@link #GEN_SMOOTH_NORMALS}.
	149	*/
	150	GEN_NORMALS(0x20),
	151
	152
	153	/**
	154	* Generates smooth normals for all vertices in the mesh.<p>
	155	*
	156	* This is ignored if normals are already there at the time this flag is
	157	* evaluated. Model importers try to load them from the source file, so
	158	* they're usually already there.<p>
	159	*
	160	* This flag may not be specified together with {@link #GEN_NORMALS}
	161	* There's a configuration option,
	162	* <tt>#AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE</tt> which allows you to
	163	* specify an angle maximum for the normal smoothing algorithm. Normals
	164	* exceeding this limit are not smoothed, resulting in a 'hard' seam between
	165	* two faces. Using a decent angle here (e.g. 80 degrees) results in very
	166	* good visual appearance.
	167	*/
	168	GEN_SMOOTH_NORMALS(0x40),
	169
	170
	171	/**
	172	* Splits large meshes into smaller sub-meshes.<p>
	173	*
	174	* This is quite useful for real-time rendering, where the number of
	175	* triangles which can be maximally processed in a single draw-call is
	176	* limited by the video driver/hardware. The maximum vertex buffer is
	177	* usually limited too. Both requirements can be met with this step: you may
	178	* specify both a triangle and vertex limit for a single mesh.<p>
	179	*
	180	* The split limits can (and should!) be set through the
	181	* <tt>#AI_CONFIG_PP_SLM_VERTEX_LIMIT</tt> and
	182	* <tt>#AI_CONFIG_PP_SLM_TRIANGLE_LIMIT</tt> settings. The default values
	183	* are <tt>#AI_SLM_DEFAULT_MAX_VERTICES</tt> and
	184	* <tt>#AI_SLM_DEFAULT_MAX_TRIANGLES</tt>.<p>
	185	*
	186	* Note that splitting is generally a time-consuming task, but only if
	187	* there's something to split. The use of this step is recommended for most
	188	* users.
	189	*/
	190	SPLIT_LARGE_MESHES(0x80),
	191
	192
	193	/**
	194	* Removes the node graph and pre-transforms all vertices with the local
	195	* transformation matrices of their nodes.<p>
	196	*
	197	* The output scene still contains nodes, however there is only a root node
	198	* with children, each one referencing only one mesh, and each mesh
	199	* referencing one material. For rendering, you can simply render all meshes
	200	* in order - you don't need to pay attention to local transformations and
	201	* the node hierarchy. Animations are removed during this step. This step is
	202	* intended for applications without a scenegraph. The step CAN cause some
	203	* problems: if e.g. a mesh of the asset contains normals and another, using
	204	* the same material index, does not, they will be brought together, but the
	205	* first meshes's part of the normal list is zeroed. However, these
	206	* artifacts are rare.<p>
	207	*
	208	* <b>Note:</b> The <tt>#AI_CONFIG_PP_PTV_NORMALIZE</tt> configuration
	209	* property can be set to normalize the scene's spatial dimension to the
	210	* -1...1 range.
	211	*/
	212	PRE_TRANSFORM_VERTICES(0x100),
	213
	214
	215	/**
	216	* Limits the number of bones simultaneously affecting a single vertex to a
	217	* maximum value.<p>
	218	*
	219	* If any vertex is affected by more than the maximum number of bones, the
	220	* least important vertex weights are removed and the remaining vertex
	221	* weights are renormalized so that the weights still sum up to 1. The
	222	* default bone weight limit is 4 (defined as <tt>#AI_LMW_MAX_WEIGHTS</tt>
	223	* in config.h), but you can use the <tt>#AI_CONFIG_PP_LBW_MAX_WEIGHTS</tt>
	224	* setting to supply your own limit to the post processing step.<p>
	225	*
	226	* If you intend to perform the skinning in hardware, this post processing
	227	* step might be of interest to you.
	228	*/
	229	LIMIT_BONE_WEIGHTS(0x200),
	230
	231
	232	/**
	233	* Validates the imported scene data structure. This makes sure that all
	234	* indices are valid, all animations and bones are linked correctly, all
	235	* material references are correct .. etc.<p>
	236	*
	237	* It is recommended that you capture Assimp's log output if you use this
	238	* flag, so you can easily find out what's wrong if a file fails the
	239	* validation. The validator is quite strict and will find all
	240	* inconsistencies in the data structure... It is recommended that plugin
	241	* developers use it to debug their loaders. There are two types of
	242	* validation failures:
	243	* <ul>
	244	* <li>Error: There's something wrong with the imported data. Further
	245	* postprocessing is not possible and the data is not usable at all. The
	246	* import fails. #Importer::GetErrorString() or #aiGetErrorString() carry
	247	* the error message around.</li>
	248	* <li>Warning: There are some minor issues (e.g. 1000000 animation
	249	* keyframes with the same time), but further postprocessing and use of the
	250	* data structure is still safe. Warning details are written to the log
	251	* file, <tt>#AI_SCENE_FLAGS_VALIDATION_WARNING</tt> is set in
	252	* #aiScene::mFlags</li>
	253	* </ul>
	254	*
	255	* This post-processing step is not time-consuming. Its use is not
	256	* compulsory, but recommended.
	257	*/
	258	VALIDATE_DATA_STRUCTURE(0x400),
	259
	260
	261	/**
	262	* Reorders triangles for better vertex cache locality.<p>
	263	*
	264	* The step tries to improve the ACMR (average post-transform vertex cache
	265	* miss ratio) for all meshes. The implementation runs in O(n) and is
	266	* roughly based on the 'tipsify' algorithm (see <a href="
	267	* http://www.cs.princeton.edu/gfx/pubs/Sander_2007_%3ETR/tipsy.pdf">this
	268	* paper</a>).<p>
	269	*
	270	* If you intend to render huge models in hardware, this step might be of
	271	* interest to you. The <tt>#AI_CONFIG_PP_ICL_PTCACHE_SIZE</tt>config
	272	* setting can be used to fine-tune the cache optimization.
	273	*/
	274	IMPROVE_CACHE_LOCALITY(0x800),
	275
	276
	277	/**
	278	* Searches for redundant/unreferenced materials and removes them.<p>
	279	*
	280	* This is especially useful in combination with the
	281	* #PretransformVertices and #OptimizeMeshes flags. Both
	282	* join small meshes with equal characteristics, but they can't do their
	283	* work if two meshes have different materials. Because several material
	284	* settings are lost during Assimp's import filters, (and because many
	285	* exporters don't check for redundant materials), huge models often have
	286	* materials which are are defined several times with exactly the same
	287	* settings.<p>
	288	*
	289	* Several material settings not contributing to the final appearance of a
	290	* surface are ignored in all comparisons (e.g. the material name). So, if
	291	* you're passing additional information through the content pipeline
	292	* (probably using magic material names), don't specify this flag.
	293	* Alternatively take a look at the <tt>#AI_CONFIG_PP_RRM_EXCLUDE_LIST</tt>
	294	* setting.
	295	*/
	296	REMOVE_REDUNDANT_MATERIALS(0x1000),
	297
	298
	299	/**
	300	* This step tries to determine which meshes have normal vectors that are
	301	* facing inwards and inverts them.<p>
	302	*
	303	* The algorithm is simple but effective: the bounding box of all vertices +
	304	* their normals is compared against the volume of the bounding box of all
	305	* vertices without their normals. This works well for most objects,
	306	* problems might occur with planar surfaces. However, the step tries to
	307	* filter such cases. The step inverts all in-facing normals. Generally it
	308	* is recommended to enable this step, although the result is not always
	309	* correct.
	310	*/
	311	FIX_INFACING_NORMALS(0x2000),
	312
	313
	314	/**
	315	* This step splits meshes with more than one primitive type in homogeneous
	316	* sub-meshes.<p>
	317	*
	318	* The step is executed after the triangulation step. After the step
	319	* returns, just one bit is set in aiMesh::mPrimitiveTypes. This is
	320	* especially useful for real-time rendering where point and line primitives
	321	* are often ignored or rendered separately. You can use the
	322	* <tt>#AI_CONFIG_PP_SBP_REMOVE</tt> option to specify which primitive types
	323	* you need. This can be used to easily exclude lines and points, which are
	324	* rarely used, from the import.
	325	*/
	326	SORT_BY_PTYPE(0x8000),
	327
	328
	329	/**
	330	* This step searches all meshes for degenerate primitives and converts them
	331	* to proper lines or points.<p>
	332	*
	333	* A face is 'degenerate' if one or more of its points are identical. To
	334	* have the degenerate stuff not only detected and collapsed but removed,
	335	* try one of the following procedures: <br>
	336	* <b>1.</b> (if you support lines and points for rendering but don't want
	337	* the degenerates)</br>
	338	* <ul>
	339	* <li>Specify the #FindDegenerates flag.</li>
	340	* <li>Set the <tt>AI_CONFIG_PP_FD_REMOVE</tt> option to 1. This will cause
	341	* the step to remove degenerate triangles from the import as soon as
	342	* they're detected. They won't pass any further pipeline steps.</li>
	343	* </ul>
	344	* <br>
	345	* <b>2.</b>(if you don't support lines and points at all)</br>
	346	* <ul>
	347	* <li>Specify the #FindDegenerates flag.
	348	* <li>Specify the #SortByPType flag. This moves line and point
	349	* primitives to separate meshes.
	350	* <li>Set the <tt>AI_CONFIG_PP_SBP_REMOVE</tt> option to
	351	* <code>aiPrimitiveType_POINTS \| aiPrimitiveType_LINES</code>
	352	* to cause SortByPType to reject point and line meshes from the
	353	* scene.
	354	* </ul>
	355	* <b>Note:</b> Degenerated polygons are not necessarily evil and that's
	356	* why they're not removed by default. There are several file formats
	357	* which don't support lines or points, and some exporters bypass the
	358	* format specification and write them as degenerate triangles instead.
	359	*/
	360	FIND_DEGENERATES(0x10000),
	361
	362
	363	/**
	364	* This step searches all meshes for invalid data, such as zeroed normal
	365	* vectors or invalid UV coords and removes/fixes them. This is intended to
	366	* get rid of some common exporter errors.<p>
	367	*
	368	* This is especially useful for normals. If they are invalid, and the step
	369	* recognizes this, they will be removed and can later be recomputed, i.e.
	370	* by the {@link #GEN_SMOOTH_NORMALS} flag.<p>
	371	*
	372	* The step will also remove meshes that are infinitely small and reduce
	373	* animation tracks consisting of hundreds if redundant keys to a single
	374	* key. The <tt>AI_CONFIG_PP_FID_ANIM_ACCURACY</tt> config property decides
	375	* the accuracy of the check for duplicate animation tracks.
	376	*/
	377	FIND_INVALID_DATA(0x20000),
	378
	379
	380	/**
	381	* This step converts non-UV mappings (such as spherical or cylindrical
	382	* mapping) to proper texture coordinate channels.<p>
	383	*
	384	* Most applications will support UV mapping only, so you will probably want
	385	* to specify this step in every case. Note that Assimp is not always able
	386	* to match the original mapping implementation of the 3D app which produced
	387	* a model perfectly. It's always better to let the modelling app compute
	388	* the UV channels - 3ds max, Maya, Blender, LightWave, and Modo do this for
	389	* example.<p>
	390	*
	391	* <b>Note:</b> If this step is not requested, you'll need to process the
	392	* <tt>MATKEY_MAPPING</tt> material property in order to display all
	393	* assets properly.
	394	*/
	395	GEN_UV_COORDS(0x40000),
	396
	397
	398	/**
	399	* This step applies per-texture UV transformations and bakes them into
	400	* stand-alone vtexture coordinate channels.<p>
	401	*
	402	* UV transformations are specified per-texture - see the
	403	* <tt>MATKEY_UVTRANSFORM</tt> material key for more information. This
	404	* step processes all textures with transformed input UV coordinates and
	405	* generates a new (pre-transformed) UV channel which replaces the old
	406	* channel. Most applications won't support UV transformations, so you will
	407	* probably want to specify this step.<p>
	408	*
	409	* <b>Note:</b> UV transformations are usually implemented in real-time
	410	* apps by transforming texture coordinates at vertex shader stage with a
	411	* 3x3 (homogenous) transformation matrix.
	412	*/
	413	TRANSFORM_UV_COORDS(0x80000),
	414
	415
	416	/**
	417	* This step searches for duplicate meshes and replaces them with references
	418	* to the first mesh.<p>
	419	*
	420	* This step takes a while, so don't use it if speed is a concern. Its main
	421	* purpose is to workaround the fact that many export file formats don't
	422	* support instanced meshes, so exporters need to duplicate meshes. This
	423	* step removes the duplicates again. Please note that Assimp does not
	424	* currently support per-node material assignment to meshes, which means
	425	* that identical meshes with different materials are currently not
	426	* joined, although this is planned for future versions.
	427	*/
	428	FIND_INSTANCES(0x100000),
	429
	430
	431	/**
	432	* A postprocessing step to reduce the number of meshes.<p>
	433	*
	434	* This will, in fact, reduce the number of draw calls.<p>
	435	*
	436	* This is a very effective optimization and is recommended to be used
	437	* together with #OptimizeGraph, if possible. The flag is fully
	438	* compatible with both {@link #SPLIT_LARGE_MESHES} and
	439	* {@link #SORT_BY_PTYPE}.
	440	*/
	441	OPTIMIZE_MESHES(0x200000),
	442
	443
	444	/**
	445	* A postprocessing step to optimize the scene hierarchy.<p>
	446	*
	447	* Nodes without animations, bones, lights or cameras assigned are collapsed
	448	* and joined.<p>
	449	*
	450	* Node names can be lost during this step. If you use special 'tag nodes'
	451	* to pass additional information through your content pipeline, use the
	452	* <tt>#AI_CONFIG_PP_OG_EXCLUDE_LIST</tt> setting to specify a list of node
	453	* names you want to be kept. Nodes matching one of the names in this list
	454	* won't be touched or modified.<p>
	455	*
	456	* Use this flag with caution. Most simple files will be collapsed to a
	457	* single node, so complex hierarchies are usually completely lost. This is
	458	* not useful for editor environments, but probably a very effective
	459	* optimization if you just want to get the model data, convert it to your
	460	* own format, and render it as fast as possible.<p>
	461	*
	462	* This flag is designed to be used with #OptimizeMeshes for best
	463	* results.<p>
	464	*
	465	* <b>Note:</b> 'Crappy' scenes with thousands of extremely small meshes
	466	* packed in deeply nested nodes exist for almost all file formats.
	467	* {@link #OPTIMIZE_MESHES} in combination with {@link #OPTIMIZE_GRAPH}
	468	* usually fixes them all and makes them renderable.
	469	*/
	470	OPTIMIZE_GRAPH(0x400000),
	471
	472
	473	/**
	474	* This step flips all UV coordinates along the y-axis and adjusts material
	475	* settings and bitangents accordingly.<p>
	476	*
	477	* <b>Output UV coordinate system:</b><br>
	478	* <code><pre>
	479	* 0y\|0y ---------- 1x\|0y
	480	* \| \|
	481	* \| \|
	482	* \| \|
	483	* 0x\|1y ---------- 1x\|1y
	484	* </pre></code>
	485	* <p>
	486	*
	487	* You'll probably want to consider this flag if you use Direct3D for
	488	* rendering. The {@link #MAKE_LEFT_HANDED} flag supersedes this setting
	489	* and bundles all conversions typically required for D3D-based
	490	* applications.
	491	*/
	492	FLIP_UVS(0x800000),
	493
	494
	495	/**
	496	* This step adjusts the output face winding order to be CW.<p>
	497	*
	498	* The default face winding order is counter clockwise (CCW).
	499	*
	500	* <b>Output face order:</b>
	501	*
	502	* <code><pre>
	503	* x2
	504	*
	505	* x0
	506	* x1
	507	* </pre></code>
	508	*/
	509	FLIP_WINDING_ORDER(0x1000000),
	510
	511
	512	/**
	513	* This step splits meshes with many bones into sub-meshes so that each
	514	* sub-mesh has fewer or as many bones as a given limit.<p>
	515	*/
	516	SPLIT_BY_BONE_COUNT(0x2000000),
	517
	518
	519	/**
	520	* This step removes bones losslessly or according to some threshold.<p>
	521	*
	522	* In some cases (i.e. formats that require it) exporters are forced to
	523	* assign dummy bone weights to otherwise static meshes assigned to animated
	524	* meshes. Full, weight-based skinning is expensive while animating nodes is
	525	* extremely cheap, so this step is offered to clean up the data in that
	526	* regard.<p>
	527	*
	528	* Use <tt>#AI_CONFIG_PP_DB_THRESHOLD</tt> to control this. Use
	529	* <tt>#AI_CONFIG_PP_DB_ALL_OR_NONE</tt> if you want bones removed if and
	530	* only if all bones within the scene qualify for removal.
	531	*/
	532	DEBONE(0x4000000);
	533
	534
	535	/**
	536	* Utility method for converting to c/c++ based integer enums from java
	537	* enums.<p>
	538	*
	539	* This method is intended to be used from JNI and my change based on
	540	* implementation needs.
	541	*
	542	* @param set the set to convert
	543	* @return an integer based enum value (as defined by assimp)
	544	*/
	545	static long toRawValue(Set<AiPostProcessSteps> set) {
	546	long rawValue = 0L;
	547
	548	for (AiPostProcessSteps step : set) {
	549	rawValue \|= step.m_rawValue;
	550	}
	551
	552	return rawValue;
	553	}
	554
	555
	556	/**
	557	* Constructor.
	558	*
	559	* @param rawValue maps java enum to c/c++ integer enum values
	560	*/
	561	private AiPostProcessSteps(long rawValue) {
	562	m_rawValue = rawValue;
	563	}
	564
	565
	566	/**
	567	* The mapped c/c++ integer enum value.
	568	*/
	569	private final long m_rawValue;
	570	}

+113

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port/jassimp/jassimp/src/jassimp/AiPrimitiveType.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.util.Set;
	43
	44
	45	/**
	46	* Enumerates the types of geometric primitives supported by Assimp.<p>
	47	*/
	48	public enum AiPrimitiveType {
	49	/**
	50	* A point primitive.
	51	*/
	52	POINT(0x1),
	53
	54
	55	/**
	56	* A line primitive.
	57	*/
	58	LINE(0x2),
	59
	60
	61	/**
	62	* A triangular primitive.
	63	*/
	64	TRIANGLE(0x4),
	65
	66
	67	/**
	68	* A higher-level polygon with more than 3 edges.<p>
	69	*
	70	* A triangle is a polygon, but polygon in this context means
	71	* "all polygons that are not triangles". The "Triangulate"-Step is provided
	72	* for your convenience, it splits all polygons in triangles (which are much
	73	* easier to handle).
	74	*/
	75	POLYGON(0x8);
	76
	77
	78	/**
	79	* Utility method for converting from c/c++ based integer enums to java
	80	* enums.<p>
	81	*
	82	* This method is intended to be used from JNI and my change based on
	83	* implementation needs.
	84	*
	85	* @param set the target set to fill
	86	* @param rawValue an integer based enum value (as defined by assimp)
	87	*/
	88	static void fromRawValue(Set<AiPrimitiveType> set, int rawValue) {
	89
	90	for (AiPrimitiveType type : AiPrimitiveType.values()) {
	91	if ((type.m_rawValue & rawValue) != 0) {
	92	set.add(type);
	93	}
	94	}
	95	}
	96
	97
	98	/**
	99	* Constructor.
	100	*
	101	* @param rawValue maps java enum to c/c++ integer enum values
	102	*/
	103	private AiPrimitiveType(int rawValue) {
	104	m_rawValue = rawValue;
	105	}
	106
	107
	108	/**
	109	* The mapped c/c++ integer enum value.
	110	*/
	111	private final int m_rawValue;
	112	}

+166

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port/jassimp/jassimp/src/jassimp/AiQuaternion.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.nio.ByteBuffer;
	43
	44
	45	/**
	46	* Wrapper for a quaternion.<p>
	47	*
	48	* The wrapper is writable, i.e., changes performed via the set-methods will
	49	* modify the underlying mesh/animation.
	50	*/
	51	public final class AiQuaternion {
	52	/**
	53	* Constructor.
	54	*
	55	* @param buffer the buffer to wrap
	56	* @param offset offset into buffer
	57	*/
	58	public AiQuaternion(ByteBuffer buffer, int offset) {
	59	if (null == buffer) {
	60	throw new IllegalArgumentException("buffer may not be null");
	61	}
	62
	63	m_buffer = buffer;
	64	m_offset = offset;
	65	}
	66
	67
	68	/**
	69	* Returns the x value.
	70	*
	71	* @return the x value
	72	*/
	73	public float getX() {
	74	return m_buffer.getFloat(m_offset + 4);
	75	}
	76
	77
	78	/**
	79	* Returns the y value.
	80	*
	81	* @return the y value
	82	*/
	83	public float getY() {
	84	return m_buffer.getFloat(m_offset + 8);
	85	}
	86
	87
	88	/**
	89	* Returns the z value.
	90	*
	91	* @return the z value
	92	*/
	93	public float getZ() {
	94	return m_buffer.getFloat(m_offset + 12);
	95	}
	96
	97
	98	/**
	99	* Returns the w value.
	100	*
	101	* @return the w value
	102	*/
	103	public float getW() {
	104	return m_buffer.getFloat(m_offset);
	105	}
	106
	107
	108	/**
	109	* Sets the x component.
	110	*
	111	* @param x the new value
	112	*/
	113	public void setX(float x) {
	114	m_buffer.putFloat(m_offset + 4, x);
	115	}
	116
	117
	118	/**
	119	* Sets the y component.
	120	*
	121	* @param y the new value
	122	*/
	123	public void setY(float y) {
	124	m_buffer.putFloat(m_offset + 8, y);
	125	}
	126
	127
	128	/**
	129	* Sets the z component.
	130	*
	131	* @param z the new value
	132	*/
	133	public void setZ(float z) {
	134	m_buffer.putFloat(m_offset + 12, z);
	135	}
	136
	137
	138	/**
	139	* Sets the z component.
	140	*
	141	* @param w the new value
	142	*/
	143	public void setW(float w) {
	144	m_buffer.putFloat(m_offset, w);
	145	}
	146
	147
	148	@Override
	149	public String toString() {
	150	return "[" + getX() + ", " + getY() + ", " + getZ() + ", " +
	151	getW() + "]";
	152	}
	153
	154
	155	/**
	156	* Wrapped buffer.
	157	*/
	158	private final ByteBuffer m_buffer;
	159
	160
	161	/**
	162	* Offset into m_buffer.
	163	*/
	164	private final int m_offset;
	165	}⏎

+251

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port/jassimp/jassimp/src/jassimp/AiScene.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.util.ArrayList;
	43	import java.util.List;
	44
	45
	46	/**
	47	* The root structure of the imported data.<p>
	48	*
	49	* Everything that was imported from the given file can be accessed from here.
	50	* <p>
	51	* Jassimp copies all data into "java memory" during import and frees
	52	* resources allocated by native code after scene loading is completed. No
	53	* special care has to be taken for freeing resources, unreferenced jassimp
	54	* objects (including the scene itself) are eligible to garbage collection like
	55	* any other java object.
	56	*/
	57	public final class AiScene {
	58	/**
	59	* Constructor.
	60	*/
	61	AiScene() {
	62	/* nothing to do */
	63	}
	64
	65
	66	/**
	67	* Returns the number of meshes contained in the scene.<p>
	68	*
	69	* This method is provided for completeness reasons. It will return the
	70	* same value as <code>getMeshes().size()</code>
	71	*
	72	* @return the number of meshes
	73	*/
	74	public int getNumMeshes() {
	75	return m_meshes.size();
	76	}
	77
	78
	79	/**
	80	* Returns the meshes contained in the scene.<p>
	81	*
	82	* If there are no meshes in the scene, an empty collection is returned
	83	*
	84	* @return the list of meshes
	85	*/
	86	public List<AiMesh> getMeshes() {
	87	return m_meshes;
	88	}
	89
	90
	91	/**
	92	* Returns the number of materials in the scene.<p>
	93	*
	94	* This method is provided for completeness reasons. It will return the
	95	* same value as <code>getMaterials().size()</code>
	96	*
	97	* @return the number of materials
	98	*/
	99	public int getNumMaterials() {
	100	return m_materials.size();
	101	}
	102
	103
	104	/**
	105	* Returns the list of materials.<p>
	106	*
	107	* Use the index given in each aiMesh structure to access this
	108	* array. If the {@link AiSceneFlag#INCOMPLETE} flag is not set there will
	109	* always be at least ONE material.
	110	*
	111	* @return the list of materials
	112	*/
	113	public List<AiMaterial> getMaterials() {
	114	return m_materials;
	115	}
	116
	117
	118	/**
	119	* Returns the number of animations in the scene.<p>
	120	*
	121	* This method is provided for completeness reasons. It will return the
	122	* same value as <code>getAnimations().size()</code>
	123	*
	124	* @return the number of materials
	125	*/
	126	public int getNumAnimations() {
	127	return m_animations.size();
	128	}
	129
	130
	131	/**
	132	* Returns the list of animations.
	133	*
	134	* @return the list of animations
	135	*/
	136	public List<AiAnimation> getAnimations() {
	137	return m_animations;
	138	}
	139
	140
	141	/**
	142	* Returns the number of light sources in the scene.<p>
	143	*
	144	* This method is provided for completeness reasons. It will return the
	145	* same value as <code>getLights().size()</code>
	146	*
	147	* @return the number of lights
	148	*/
	149	public int getNumLights() {
	150	return m_lights.size();
	151	}
	152
	153
	154	/**
	155	* Returns the list of light sources.<p>
	156	*
	157	* Light sources are fully optional, the returned list may be empty
	158	*
	159	* @return a possibly empty list of lights
	160	*/
	161	public List<AiLight> getLights() {
	162	return m_lights;
	163	}
	164
	165
	166	/**
	167	* Returns the number of cameras in the scene.<p>
	168	*
	169	* This method is provided for completeness reasons. It will return the
	170	* same value as <code>getCameras().size()</code>
	171	*
	172	* @return the number of cameras
	173	*/
	174	public int getNumCameras() {
	175	return m_cameras.size();
	176	}
	177
	178
	179	/**
	180	* Returns the list of cameras.<p>
	181	*
	182	* Cameras are fully optional, the returned list may be empty
	183	*
	184	* @return a possibly empty list of cameras
	185	*/
	186	public List<AiCamera> getCameras() {
	187	return m_cameras;
	188	}
	189
	190
	191	/**
	192	* Returns the scene graph root.
	193	*
	194	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	195	* for details on wrappers).<p>
	196	*
	197	* The built-in behavior is to return a {@link AiVector}.
	198	*
	199	* @param wrapperProvider the wrapper provider (used for type inference)
	200	* @return the scene graph root
	201	*/
	202	@SuppressWarnings("unchecked")
	203	public <V3, M4, C, N, Q> N getSceneRoot(AiWrapperProvider<V3, M4, C, N, Q>
	204	wrapperProvider) {
	205
	206	return (N) m_sceneRoot;
	207	}
	208
	209
	210	@Override
	211	public String toString() {
	212	return "AiScene (" + m_meshes.size() + " mesh/es)";
	213	}
	214
	215
	216	/**
	217	* Meshes.
	218	*/
	219	private final List<AiMesh> m_meshes = new ArrayList<AiMesh>();
	220
	221
	222	/**
	223	* Materials.
	224	*/
	225	private final List<AiMaterial> m_materials = new ArrayList<AiMaterial>();
	226
	227
	228	/**
	229	* Animations.
	230	*/
	231	private final List<AiAnimation> m_animations = new ArrayList<AiAnimation>();
	232
	233
	234	/**
	235	* Lights.
	236	*/
	237	private final List<AiLight> m_lights = new ArrayList<AiLight>();
	238
	239
	240	/**
	241	* Cameras.
	242	*/
	243	private final List<AiCamera> m_cameras = new ArrayList<AiCamera>();
	244
	245
	246	/**
	247	* Scene graph root.
	248	*/
	249	private Object m_sceneRoot;
	250	}

+153

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port/jassimp/jassimp/src/jassimp/AiSceneFlag.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.util.Set;
	43
	44
	45	/**
	46	* Status flags for {@link AiScene}s.
	47	*/
	48	public enum AiSceneFlag {
	49	/**
	50	* Specifies that the scene data structure that was imported is not
	51	* complete.<p>
	52	*
	53	* This flag bypasses some internal validations and allows the import
	54	* of animation skeletons, material libraries or camera animation paths
	55	* using Assimp. Most applications won't support such data.
	56	*/
	57	INCOMPLETE(0x1),
	58
	59
	60	/**
	61	* This flag is set by the validation
	62	* ({@link AiPostProcessSteps#VALIDATE_DATA_STRUCTURE
	63	* VALIDATE_DATA_STRUCTURE})
	64	* postprocess-step if the validation is successful.<p>
	65	*
	66	* In a validated scene you can be sure that any cross references in the
	67	* data structure (e.g. vertex indices) are valid.
	68	*/
	69	VALIDATED(0x2),
	70
	71
	72	/**
	73	* * This flag is set by the validation
	74	* ({@link AiPostProcessSteps#VALIDATE_DATA_STRUCTURE
	75	* VALIDATE_DATA_STRUCTURE})
	76	* postprocess-step if the validation is successful but some issues have
	77	* been found.<p>
	78	*
	79	* This can for example mean that a texture that does not exist is
	80	* referenced by a material or that the bone weights for a vertex don't sum
	81	* to 1.0 ... . In most cases you should still be able to use the import.
	82	* This flag could be useful for applications which don't capture Assimp's
	83	* log output.
	84	*/
	85	VALIDATION_WARNING(0x4),
	86
	87
	88	/**
	89	* This flag is currently only set by the
	90	* {@link jassimp.AiPostProcessSteps#JOIN_IDENTICAL_VERTICES
	91	* JOIN_IDENTICAL_VERTICES}.<p>
	92	*
	93	* It indicates that the vertices of the output meshes aren't in the
	94	* internal verbose format anymore. In the verbose format all vertices are
	95	* unique, no vertex is ever referenced by more than one face.
	96	*/
	97	NON_VERBOSE_FORMAT(0x8),
	98
	99
	100	/**
	101	* Denotes pure height-map terrain data.<p>
	102	*
	103	* Pure terrains usually consist of quads, sometimes triangles, in a
	104	* regular grid. The x,y coordinates of all vertex positions refer to the
	105	* x,y coordinates on the terrain height map, the z-axis stores the
	106	* elevation at a specific point.<p>
	107	*
	108	* TER (Terragen) and HMP (3D Game Studio) are height map formats.
	109	* <p>
	110	* Assimp is probably not the best choice for loading huge terrains -
	111	* fully triangulated data takes extremely much free store and should be
	112	* avoided as long as possible (typically you'll do the triangulation when
	113	* you actually need to render it).
	114	*/
	115	TERRAIN(0x10);
	116
	117
	118	/**
	119	* Utility method for converting from c/c++ based integer enums to java
	120	* enums.<p>
	121	*
	122	* This method is intended to be used from JNI and my change based on
	123	* implementation needs.
	124	*
	125	* @param set the target set to fill
	126	* @param rawValue an integer based enum value (as defined by assimp)
	127	*/
	128	static void fromRawValue(Set<AiSceneFlag> set, int rawValue) {
	129
	130	for (AiSceneFlag type : AiSceneFlag.values()) {
	131	if ((type.m_rawValue & rawValue) != 0) {
	132	set.add(type);
	133	}
	134	}
	135	}
	136
	137
	138	/**
	139	* Constructor.
	140	*
	141	* @param rawValue maps java enum to c/c++ integer enum values
	142	*/
	143	private AiSceneFlag(int rawValue) {
	144	m_rawValue = rawValue;
	145	}
	146
	147
	148	/**
	149	* The mapped c/c++ integer enum value.
	150	*/
	151	private final int m_rawValue;
	152	}

+168

-0

port/jassimp/jassimp/src/jassimp/AiShadingMode.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* Defines all shading modes supported by the library.<p>
	45	*
	46	* The list of shading modes has been taken from Blender.
	47	* See Blender documentation for more information. The API does
	48	* not distinguish between "specular" and "diffuse" shaders (thus the
	49	* specular term for diffuse shading models like Oren-Nayar remains
	50	* undefined).<p>
	51	* Again, this value is just a hint. Assimp tries to select the shader whose
	52	* most common implementation matches the original rendering results of the
	53	* 3D modeller which wrote a particular model as closely as possible.
	54	*/
	55	public enum AiShadingMode {
	56	/**
	57	* Flat shading.<p>
	58	*
	59	* Shading is done on per-face base, diffuse only. Also known as
	60	* 'faceted shading'.
	61	*/
	62	FLAT(0x1),
	63
	64
	65	/**
	66	* Simple Gouraud shading.
	67	*/
	68	GOURAUD(0x2),
	69
	70
	71	/**
	72	* Phong-Shading.
	73	*/
	74	PHONG(0x3),
	75
	76
	77	/**
	78	* Phong-Blinn-Shading.
	79	*/
	80	BLINN(0x4),
	81
	82
	83	/**
	84	* Toon-Shading per pixel.<p>
	85	*
	86	* Also known as 'comic' shader.
	87	*/
	88	TOON(0x5),
	89
	90
	91	/**
	92	* OrenNayar-Shading per pixel.<p>
	93	*
	94	* Extension to standard Lambertian shading, taking the roughness of the
	95	* material into account
	96	*/
	97	OREN_NAYAR(0x6),
	98
	99
	100	/**
	101	* Minnaert-Shading per pixel.<p>
	102	*
	103	* Extension to standard Lambertian shading, taking the "darkness" of the
	104	* material into account
	105	*/
	106	MINNAERT(0x7),
	107
	108
	109	/**
	110	* CookTorrance-Shading per pixel.<p>
	111	*
	112	* Special shader for metallic surfaces.
	113	*/
	114	COOK_TORRANCE(0x8),
	115
	116
	117	/**
	118	* No shading at all.<p>
	119	*
	120	* Constant light influence of 1.0.
	121	*/
	122	NO_SHADING(0x9),
	123
	124
	125	/**
	126	* Fresnel shading.
	127	*/
	128	FRESNEL(0xa);
	129
	130
	131	/**
	132	* Utility method for converting from c/c++ based integer enums to java
	133	* enums.<p>
	134	*
	135	* This method is intended to be used from JNI and my change based on
	136	* implementation needs.
	137	*
	138	* @param rawValue an integer based enum value (as defined by assimp)
	139	* @return the enum value corresponding to rawValue
	140	*/
	141	static AiShadingMode fromRawValue(int rawValue) {
	142	for (AiShadingMode type : AiShadingMode.values()) {
	143	if (type.m_rawValue == rawValue) {
	144	return type;
	145	}
	146	}
	147
	148	throw new IllegalArgumentException("unexptected raw value: " +
	149	rawValue);
	150	}
	151
	152
	153	/**
	154	* Constructor.
	155	*
	156	* @param rawValue maps java enum to c/c++ integer enum values
	157	*/
	158	private AiShadingMode(int rawValue) {
	159	m_rawValue = rawValue;
	160	}
	161
	162
	163	/**
	164	* The mapped c/c++ integer enum value.
	165	*/
	166	private final int m_rawValue;
	167	}

+224

-0

port/jassimp/jassimp/src/jassimp/AiTextureInfo.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* Data structure for texture related material properties.
	45	*/
	46	public final class AiTextureInfo {
	47
	48	/**
	49	* Constructor.
	50	*
	51	* @param type type
	52	* @param index index
	53	* @param file file
	54	* @param uvIndex uv index
	55	* @param blend blend factor
	56	* @param texOp texture operation
	57	* @param mmU map mode for u axis
	58	* @param mmV map mode for v axis
	59	* @param mmW map mode for w axis
	60	*/
	61	AiTextureInfo(AiTextureType type, int index, String file,
	62	int uvIndex, float blend, AiTextureOp texOp, AiTextureMapMode mmU,
	63	AiTextureMapMode mmV, AiTextureMapMode mmW) {
	64
	65	m_type = type;
	66	m_index = index;
	67	m_file = file;
	68	m_uvIndex = uvIndex;
	69	m_blend = blend;
	70	m_textureOp = texOp;
	71	m_textureMapModeU = mmU;
	72	m_textureMapModeV = mmV;
	73	m_textureMapModeW = mmW;
	74	}
	75
	76
	77	/**
	78	* Specifies the type of the texture (e.g. diffuse, specular, ...).
	79	*
	80	* @return the type.
	81	*/
	82	public AiTextureType getType() {
	83	return m_type;
	84	}
	85
	86
	87	/**
	88	* Index of the texture in the texture stack.<p>
	89	*
	90	* Each type maintains a stack of textures, i.e., there may be a diffuse.0,
	91	* a diffuse.1, etc
	92	*
	93	* @return the index
	94	*/
	95	public int getIndex() {
	96	return m_index;
	97	}
	98
	99
	100	/**
	101	* Returns the path to the texture file.
	102	*
	103	* @return the path
	104	*/
	105	public String getFile() {
	106	return m_file;
	107	}
	108
	109
	110	/**
	111	* Returns the index of the UV coordinate set.
	112	*
	113	* @return the uv index
	114	*/
	115	public int getUVIndex() {
	116	return m_uvIndex;
	117	}
	118
	119
	120	/**
	121	* Returns the blend factor.
	122	*
	123	* @return the blend factor
	124	*/
	125	public float getBlend() {
	126	return m_blend;
	127	}
	128
	129
	130	/**
	131	* Returns the texture operation used to combine this texture and the
	132	* preceding texture in the stack.
	133	*
	134	* @return the texture operation
	135	*/
	136	public AiTextureOp getTextureOp() {
	137	return m_textureOp;
	138	}
	139
	140
	141	/**
	142	* Returns the texture map mode for U texture axis.
	143	*
	144	* @return the texture map mode
	145	*/
	146	public AiTextureMapMode getTextureMapModeU() {
	147	return m_textureMapModeU;
	148	}
	149
	150
	151	/**
	152	* Returns the texture map mode for V texture axis.
	153	*
	154	* @return the texture map mode
	155	*/
	156	public AiTextureMapMode getTextureMapModeV() {
	157	return m_textureMapModeV;
	158	}
	159
	160
	161	/**
	162	* Returns the texture map mode for W texture axis.
	163	*
	164	* @return the texture map mode
	165	*/
	166	public AiTextureMapMode getTextureMapModeW() {
	167	return m_textureMapModeW;
	168	}
	169
	170
	171	/**
	172	* Type.
	173	*/
	174	private final AiTextureType m_type;
	175
	176
	177	/**
	178	* Index.
	179	*/
	180	private final int m_index;
	181
	182
	183	/**
	184	* Path.
	185	*/
	186	private final String m_file;
	187
	188
	189	/**
	190	* UV index.
	191	*/
	192	private final int m_uvIndex;
	193
	194
	195	/**
	196	* Blend factor.
	197	*/
	198	private final float m_blend;
	199
	200
	201	/**
	202	* Texture operation.
	203	*/
	204	private final AiTextureOp m_textureOp;
	205
	206
	207	/**
	208	* Map mode U axis.
	209	*/
	210	private final AiTextureMapMode m_textureMapModeU;
	211
	212
	213	/**
	214	* Map mode V axis.
	215	*/
	216	private final AiTextureMapMode m_textureMapModeV;
	217
	218
	219	/**
	220	* Map mode W axis.
	221	*/
	222	private final AiTextureMapMode m_textureMapModeW;
	223	}

+113

-0

port/jassimp/jassimp/src/jassimp/AiTextureMapMode.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* Defines how UV coordinates outside the [0...1] range are handled.<p>
	45	*
	46	* Commonly refered to as 'wrapping mode'.
	47	*/
	48	public enum AiTextureMapMode {
	49	/**
	50	* A texture coordinate u\|v is translated to u%1\|v%1.
	51	*/
	52	WRAP(0x0),
	53
	54
	55	/**
	56	* Texture coordinates outside [0...1] are clamped to the nearest
	57	* valid value.
	58	*/
	59	CLAMP(0x1),
	60
	61
	62	/**
	63	* A texture coordinate u\|v becomes u%1\|v%1 if (u-(u%1))%2 is zero and
	64	* 1-(u%1)\|1-(v%1) otherwise.
	65	*/
	66	MIRROR(0x2),
	67
	68
	69	/**
	70	* If the texture coordinates for a pixel are outside [0...1] the texture
	71	* is not applied to that pixel.
	72	*/
	73	DECAL(0x3);
	74
	75
	76	/**
	77	* Utility method for converting from c/c++ based integer enums to java
	78	* enums.<p>
	79	*
	80	* This method is intended to be used from JNI and my change based on
	81	* implementation needs.
	82	*
	83	* @param rawValue an integer based enum value (as defined by assimp)
	84	* @return the enum value corresponding to rawValue
	85	*/
	86	static AiTextureMapMode fromRawValue(int rawValue) {
	87	for (AiTextureMapMode type : AiTextureMapMode.values()) {
	88	if (type.m_rawValue == rawValue) {
	89	return type;
	90	}
	91	}
	92
	93	throw new IllegalArgumentException("unexptected raw value: " +
	94	rawValue);
	95	}
	96
	97
	98	/**
	99	* Constructor.
	100	*
	101	* @param rawValue maps java enum to c/c++ integer enum values
	102	*/
	103	private AiTextureMapMode(int rawValue) {
	104	m_rawValue = rawValue;
	105	}
	106
	107
	108	/**
	109	* The mapped c/c++ integer enum value.
	110	*/
	111	private final int m_rawValue;
	112	}

+78

-0

port/jassimp/jassimp/src/jassimp/AiTextureMapping.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* Defines how the mapping coords for a texture are generated.<p>
	45	*
	46	* Real-time applications typically require full UV coordinates, so the use of
	47	* the {@link AiPostProcessSteps#GEN_UV_COORDS} step is highly recommended.
	48	* It generates proper UV channels for non-UV mapped objects, as long as an
	49	* accurate description how the mapping should look like (e.g spherical) is
	50	* given.
	51	*/
	52	public enum AiTextureMapping {
	53	/**
	54	* The mapping coordinates are taken from an UV channel.
	55	*
	56	* The #AI_MATKEY_UVWSRC key specifies from which UV channel
	57	* the texture coordinates are to be taken from (remember,
	58	* meshes can have more than one UV channel).
	59	*/
	60	// aiTextureMapping_UV = 0x0,
	61	//
	62	// /** Spherical mapping */
	63	// aiTextureMapping_SPHERE = 0x1,
	64	//
	65	// /** Cylindrical mapping */
	66	// aiTextureMapping_CYLINDER = 0x2,
	67	//
	68	// /** Cubic mapping */
	69	// aiTextureMapping_BOX = 0x3,
	70	//
	71	// /** Planar mapping */
	72	// aiTextureMapping_PLANE = 0x4,
	73	//
	74	// /** Undefined mapping. Have fun. */
	75	// aiTextureMapping_OTHER = 0x5,
	76
	77	}

+137

-0

port/jassimp/jassimp/src/jassimp/AiTextureOp.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* Defines how the Nth texture of a specific type is combined with the result
	45	* of all previous layers.<p>
	46	*
	47	* Example (left: key, right: value): <br>
	48	* <code><pre>
	49	* DiffColor0 - gray
	50	* DiffTextureOp0 - aiTextureOpMultiply
	51	* DiffTexture0 - tex1.png
	52	* DiffTextureOp0 - aiTextureOpAdd
	53	* DiffTexture1 - tex2.png
	54	* </pre></code>
	55	*
	56	* Written as equation, the final diffuse term for a specific pixel would be:
	57	* <code><pre>
	58	* diffFinal = DiffColor0 * sampleTex(DiffTexture0,UV0) +
	59	* sampleTex(DiffTexture1,UV0) * diffContrib;
	60	* </pre></code>
	61	* where 'diffContrib' is the intensity of the incoming light for that pixel.
	62	*/
	63	public enum AiTextureOp {
	64	/**
	65	* <code>T = T1 * T2</code>.
	66	*/
	67	MULTIPLY(0x0),
	68
	69
	70	/**
	71	* <code>T = T1 + T2</code>.
	72	*/
	73	ADD(0x1),
	74
	75
	76	/**
	77	* <code>T = T1 - T2</code>.
	78	*/
	79	SUBTRACT(0x2),
	80
	81
	82	/**
	83	* <code>T = T1 / T2</code>.
	84	*/
	85	DIVIDE(0x3),
	86
	87
	88	/**
	89	* <code>T = (T1 + T2) - (T1 * T2)</code> .
	90	*/
	91	SMOOTH_ADD(0x4),
	92
	93
	94	/**
	95	* <code>T = T1 + (T2-0.5)</code>.
	96	*/
	97	SIGNED_ADD(0x5);
	98
	99
	100	/**
	101	* Utility method for converting from c/c++ based integer enums to java
	102	* enums.<p>
	103	*
	104	* This method is intended to be used from JNI and my change based on
	105	* implementation needs.
	106	*
	107	* @param rawValue an integer based enum value (as defined by assimp)
	108	* @return the enum value corresponding to rawValue
	109	*/
	110	static AiTextureOp fromRawValue(int rawValue) {
	111	for (AiTextureOp type : AiTextureOp.values()) {
	112	if (type.m_rawValue == rawValue) {
	113	return type;
	114	}
	115	}
	116
	117	throw new IllegalArgumentException("unexptected raw value: " +
	118	rawValue);
	119	}
	120
	121
	122	/**
	123	* Constructor.
	124	*
	125	* @param rawValue maps java enum to c/c++ integer enum values
	126	*/
	127	private AiTextureOp(int rawValue) {
	128	m_rawValue = rawValue;
	129	}
	130
	131
	132	/**
	133	* The mapped c/c++ integer enum value.
	134	*/
	135	private final int m_rawValue;
	136	}

+212

-0

port/jassimp/jassimp/src/jassimp/AiTextureType.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	/**
	43	* Defines the purpose of a texture.<p>
	44	*
	45	* This is a very difficult topic. Different 3D packages support different
	46	* kinds of textures. For very common texture types, such as bumpmaps, the
	47	* rendering results depend on implementation details in the rendering
	48	* pipelines of these applications. Assimp loads all texture references from
	49	* the model file and tries to determine which of the predefined texture
	50	* types below is the best choice to match the original use of the texture
	51	* as closely as possible.<p>
	52	*
	53	* In content pipelines you'll usually define how textures have to be handled,
	54	* and the artists working on models have to conform to this specification,
	55	* regardless which 3D tool they're using.
	56	*/
	57	public enum AiTextureType {
	58	/**
	59	* The texture is combined with the result of the diffuse
	60	* lighting equation.
	61	*/
	62	DIFFUSE(0x1),
	63
	64
	65	/**
	66	* The texture is combined with the result of the specular
	67	* lighting equation.
	68	*/
	69	SPECULAR(0x2),
	70
	71
	72	/**
	73	* The texture is combined with the result of the ambient
	74	* lighting equation.
	75	*/
	76	AMBIENT(0x3),
	77
	78
	79	/**
	80	* The texture is added to the result of the lighting
	81	* calculation. It isn't influenced by incoming light.
	82	*/
	83	EMISSIVE(0x4),
	84
	85
	86	/**
	87	* The texture is a height map.<p>
	88	*
	89	* By convention, higher gray-scale values stand for
	90	* higher elevations from the base height.
	91	*/
	92	HEIGHT(0x5),
	93
	94
	95	/**
	96	* The texture is a (tangent space) normal-map.<p>
	97	*
	98	* Again, there are several conventions for tangent-space
	99	* normal maps. Assimp does (intentionally) not distinguish here.
	100	*/
	101	NORMALS(0x6),
	102
	103
	104	/**
	105	* The texture defines the glossiness of the material.<p>
	106	*
	107	* The glossiness is in fact the exponent of the specular
	108	* (phong) lighting equation. Usually there is a conversion
	109	* function defined to map the linear color values in the
	110	* texture to a suitable exponent. Have fun.
	111	*/
	112	SHININESS(0x7),
	113
	114
	115	/**
	116	* The texture defines per-pixel opacity.<p>
	117	*
	118	* Usually 'white' means opaque and 'black' means
	119	* 'transparency'. Or quite the opposite. Have fun.
	120	*/
	121	OPACITY(0x8),
	122
	123
	124	/**
	125	* Displacement texture.<p>
	126	*
	127	* The exact purpose and format is application-dependent.
	128	* Higher color values stand for higher vertex displacements.
	129	*/
	130	DISPLACEMENT(0x9),
	131
	132
	133	/**
	134	* Lightmap texture (aka Ambient Occlusion).<p>
	135	*
	136	* Both 'Lightmaps' and dedicated 'ambient occlusion maps' are
	137	* covered by this material property. The texture contains a
	138	* scaling value for the final color value of a pixel. Its
	139	* intensity is not affected by incoming light.
	140	*/
	141	LIGHTMAP(0xA),
	142
	143
	144	/**
	145	* Reflection texture.<p>
	146	*
	147	* Contains the color of a perfect mirror reflection.
	148	* Rarely used, almost never for real-time applications.
	149	*/
	150	REFLECTION(0xB),
	151
	152
	153	/**
	154	* Unknown texture.<p>
	155	*
	156	* A texture reference that does not match any of the definitions
	157	* above is considered to be 'unknown'. It is still imported,
	158	* but is excluded from any further postprocessing.
	159	*/
	160	UNKNOWN(0xC);
	161
	162
	163	/**
	164	* Utility method for converting from c/c++ based integer enums to java
	165	* enums.<p>
	166	*
	167	* This method is intended to be used from JNI and my change based on
	168	* implementation needs.
	169	*
	170	* @param rawValue an integer based enum value (as defined by assimp)
	171	* @return the enum value corresponding to rawValue
	172	*/
	173	static AiTextureType fromRawValue(int rawValue) {
	174	for (AiTextureType type : AiTextureType.values()) {
	175	if (type.m_rawValue == rawValue) {
	176	return type;
	177	}
	178	}
	179
	180	throw new IllegalArgumentException("unexptected raw value: " +
	181	rawValue);
	182	}
	183
	184
	185	/**
	186	* Utility method for converting from java enums to c/c++ based integer
	187	* enums.<p>
	188	*
	189	* @param type the type to convert, may not be null
	190	* @return the rawValue corresponding to type
	191	*/
	192	static int toRawValue(AiTextureType type) {
	193	return type.m_rawValue;
	194	}
	195
	196
	197	/**
	198	* Constructor.
	199	*
	200	* @param rawValue maps java enum to c/c++ integer enum values
	201	*/
	202	private AiTextureType(int rawValue) {
	203	m_rawValue = rawValue;
	204	}
	205
	206
	207	/**
	208	* The mapped c/c++ integer enum value.
	209	*/
	210	private final int m_rawValue;
	211	}⏎

+195

-0

port/jassimp/jassimp/src/jassimp/AiVector.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.nio.ByteBuffer;
	43
	44
	45	/**
	46	* Wrapper for 3-dimensional vectors.<p>
	47	*
	48	* This wrapper is also used to represent 1- and 2-dimensional vectors. In
	49	* these cases only the x (or the x and y coordinate) will be used.
	50	* Accessing unused components will throw UnsupportedOperationExceptions.<p>
	51	*
	52	* The wrapper is writable, i.e., changes performed via the set-methods will
	53	* modify the underlying mesh.
	54	*/
	55	public final class AiVector {
	56	/**
	57	* Constructor.
	58	*
	59	* @param buffer the buffer to wrap
	60	* @param offset offset into buffer
	61	* @param numComponents number vector of components
	62	*/
	63	public AiVector(ByteBuffer buffer, int offset, int numComponents) {
	64	if (null == buffer) {
	65	throw new IllegalArgumentException("buffer may not be null");
	66	}
	67
	68	m_buffer = buffer;
	69	m_offset = offset;
	70	m_numComponents = numComponents;
	71	}
	72
	73
	74	/**
	75	* Returns the x value.
	76	*
	77	* @return the x value
	78	*/
	79	public float getX() {
	80	return m_buffer.getFloat(m_offset);
	81	}
	82
	83
	84	/**
	85	* Returns the y value.<p>
	86	*
	87	* May only be called on 2- or 3-dimensional vectors.
	88	*
	89	* @return the y value
	90	*/
	91	public float getY() {
	92	if (m_numComponents <= 1) {
	93	throw new UnsupportedOperationException(
	94	"vector has only 1 component");
	95	}
	96
	97	return m_buffer.getFloat(m_offset + 4);
	98	}
	99
	100
	101	/**
	102	* Returns the z value.<p>
	103	*
	104	* May only be called on 3-dimensional vectors.
	105	*
	106	* @return the z value
	107	*/
	108	public float getZ() {
	109	if (m_numComponents <= 2) {
	110	throw new UnsupportedOperationException(
	111	"vector has only 2 components");
	112	}
	113
	114	return m_buffer.getFloat(m_offset + 8);
	115	}
	116
	117
	118	/**
	119	* Sets the x component.
	120	*
	121	* @param x the new value
	122	*/
	123	public void setX(float x) {
	124	m_buffer.putFloat(m_offset, x);
	125	}
	126
	127
	128	/**
	129	* Sets the y component.<p>
	130	*
	131	* May only be called on 2- or 3-dimensional vectors.
	132	*
	133	* @param y the new value
	134	*/
	135	public void setY(float y) {
	136	if (m_numComponents <= 1) {
	137	throw new UnsupportedOperationException(
	138	"vector has only 1 component");
	139	}
	140
	141	m_buffer.putFloat(m_offset + 4, y);
	142	}
	143
	144
	145	/**
	146	* Sets the z component.<p>
	147	*
	148	* May only be called on 3-dimensional vectors.
	149	*
	150	* @param z the new value
	151	*/
	152	public void setZ(float z) {
	153	if (m_numComponents <= 2) {
	154	throw new UnsupportedOperationException(
	155	"vector has only 2 components");
	156	}
	157
	158	m_buffer.putFloat(m_offset + 8, z);
	159	}
	160
	161
	162	/**
	163	* Returns the number of components in this vector.
	164	*
	165	* @return the number of components
	166	*/
	167	public int getNumComponents() {
	168	return m_numComponents;
	169	}
	170
	171
	172	@Override
	173	public String toString() {
	174	return "[" + getX() + ", " + getY() + ", " + getZ() + "]";
	175	}
	176
	177
	178	/**
	179	* Wrapped buffer.
	180	*/
	181	private final ByteBuffer m_buffer;
	182
	183
	184	/**
	185	* Offset into m_buffer.
	186	*/
	187	private final int m_offset;
	188
	189
	190	/**
	191	* Number of components.
	192	*/
	193	private final int m_numComponents;
	194	}

+149

-0

port/jassimp/jassimp/src/jassimp/AiWrapperProvider.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.nio.ByteBuffer;
	43
	44
	45	/**
	46	* Provides wrapper objects for raw data buffers.<p>
	47	*
	48	* It is likely that applications using Jassimp will already have a scene
	49	* graph implementation and/ or the typical math related classes such as
	50	* vectors, matrices, etc.<p>
	51	*
	52	* To ease the integration with existing code, Jassimp can be customized to
	53	* represent the scene graph and compound data structures such as vectors and
	54	* matrices with user supplied classes.<p>
	55	*
	56	* All methods returning wrapped objects rely on the AiWrapperProvider to
	57	* create individual instances. Custom wrappers can be created by implementing
	58	* AiWrapperProvider and registering the implementation via
	59	* {@link Jassimp#setWrapperProvider(AiWrapperProvider)} <b>before</b> the
	60	* scene is imported.<p>
	61	*
	62	* The methods returning wrapped types take an AiWrapperProvider instance. This
	63	* instance must match the instance set via
	64	* {@link Jassimp#setWrapperProvider(AiWrapperProvider)}. The method parameter
	65	* is used to infer the type of the returned object. The passed in wrapper
	66	* provider is not necessarily used to actually create the wrapped object, as
	67	* the object may be cached for performance reasons. <b>It is not possible to
	68	* use different AiWrapperProviders throughout the lifetime of an imported
	69	* scene.</b>
	70	*
	71	* @param <V3> the type used to represent vectors
	72	* @param <M4> the type used to represent matrices
	73	* @param <C> the type used to represent colors
	74	* @param <N> the type used to represent scene graph nodes
	75	* @param <Q> the type used to represent quaternions
	76	*/
	77	public interface AiWrapperProvider<V3, M4, C, N, Q> {
	78	/**
	79	* Wraps a vector.<p>
	80	*
	81	* Most vectors are 3-dimensional, i.e., with 3 components. The exception
	82	* are texture coordinates, which may be 1- or 2-dimensional. A vector
	83	* consists of numComponents floats (x,y,z) starting from offset
	84	*
	85	* @param buffer the buffer to wrap
	86	* @param offset the offset into buffer
	87	* @param numComponents the number of components
	88	* @return the wrapped vector
	89	*/
	90	V3 wrapVector3f(ByteBuffer buffer, int offset, int numComponents);
	91
	92
	93	/**
	94	* Wraps a 4x4 matrix of floats.<p>
	95	*
	96	* The calling code will allocate a new array for each invocation of this
	97	* method. It is safe to store a reference to the passed in array and
	98	* use the array to store the matrix data.
	99	*
	100	* @param data the matrix data in row-major order
	101	* @return the wrapped matrix
	102	*/
	103	M4 wrapMatrix4f(float[] data);
	104
	105
	106	/**
	107	* Wraps a RGBA color.<p>
	108	*
	109	* A color consists of 4 float values (r,g,b,a) starting from offset
	110	*
	111	* @param buffer the buffer to wrap
	112	* @param offset the offset into buffer
	113	* @return the wrapped color
	114	*/
	115	C wrapColor(ByteBuffer buffer, int offset);
	116
	117
	118	/**
	119	* Wraps a scene graph node.<p>
	120	*
	121	* See {@link AiNode} for a description of the scene graph structure used
	122	* by assimp.<p>
	123	*
	124	* The parent node is either null or an instance returned by this method.
	125	* It is therefore safe to cast the passed in parent object to the
	126	* implementation specific type
	127	*
	128	* @param parent the parent node
	129	* @param matrix the transformation matrix
	130	* @param meshReferences array of mesh references (indexes)
	131	* @param name the name of the node
	132	* @return the wrapped scene graph node
	133	*/
	134	N wrapSceneNode(Object parent, Object matrix, int[] meshReferences,
	135	String name);
	136
	137
	138	/**
	139	* Wraps a quaternion.<p>
	140	*
	141	* A quaternion consists of 4 float values (w,x,y,z) starting from offset
	142	*
	143	* @param buffer the buffer to wrap
	144	* @param offset the offset into buffer
	145	* @return the wrapped quaternion
	146	*/
	147	Q wrapQuaternion(ByteBuffer buffer, int offset);
	148	}

+209

-0

port/jassimp/jassimp/src/jassimp/JaiDebug.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.nio.ByteBuffer;
	43
	44
	45	/**
	46	* Debug/utility methods.
	47	*/
	48	public final class JaiDebug {
	49
	50	/**
	51	* Pure static class, no accessible constructor.
	52	*/
	53	private JaiDebug() {
	54	/* nothing to do */
	55	}
	56
	57
	58	/**
	59	* Dumps vertex positions of a mesh to stdout.<p>
	60	*
	61	* @param mesh the mesh
	62	*/
	63	public static void dumpPositions(AiMesh mesh) {
	64	if (!mesh.hasPositions()) {
	65	System.out.println("mesh has no vertex positions");
	66	return;
	67	}
	68
	69	for (int i = 0; i < mesh.getNumVertives(); i++) {
	70	System.out.println("[" +
	71	mesh.getPositionX(i) + ", " +
	72	mesh.getPositionY(i) + ", " +
	73	mesh.getPositionZ(i) + "]"
	74	);
	75	}
	76	}
	77
	78
	79	/**
	80	* Dumps faces of a mesh to stdout.<p>
	81	*
	82	* @param mesh the mesh
	83	*/
	84	public static void dumpFaces(AiMesh mesh) {
	85	if (!mesh.hasFaces()) {
	86	System.out.println("mesh has no faces");
	87	return;
	88	}
	89
	90	for (int face = 0; face < mesh.getNumFaces(); face++) {
	91	int faceNumIndices = mesh.getFaceNumIndices(face);
	92	System.out.print(faceNumIndices + ": ");
	93
	94	for (int vertex = 0; vertex < faceNumIndices; vertex++) {
	95	int reference = mesh.getFaceVertex(face, vertex);
	96
	97	System.out.print("[" +
	98	mesh.getPositionX(reference) + ", " +
	99	mesh.getPositionY(reference) + ", " +
	100	mesh.getPositionZ(reference) + "] "
	101	);
	102	}
	103
	104	System.out.println();
	105	}
	106	}
	107
	108
	109	/**
	110	* Dumps a vertex color set of a mesh to stdout.<p>
	111	*
	112	* @param mesh the mesh
	113	* @param colorset the color set
	114	*/
	115	public static void dumpColorset(AiMesh mesh, int colorset) {
	116	if (!mesh.hasColors(colorset)) {
	117	System.out.println("mesh has no vertex color set " + colorset);
	118	return;
	119	}
	120
	121	for (int i = 0; i < mesh.getNumVertives(); i++) {
	122	System.out.println("[" +
	123	mesh.getColorR(i, colorset) + ", " +
	124	mesh.getColorG(i, colorset) + ", " +
	125	mesh.getColorB(i, colorset) + ", " +
	126	mesh.getColorA(i, colorset) + "]"
	127	);
	128	}
	129	}
	130
	131
	132	/**
	133	* Dumps a texture coordinate set of a mesh to stdout.
	134	*
	135	* @param mesh the mesh
	136	* @param coords the coordinates
	137	*/
	138	public static void dumpTexCoords(AiMesh mesh, int coords) {
	139	if (!mesh.hasTexCoords(coords)) {
	140	System.out.println("mesh has no texture coordinate set " + coords);
	141	return;
	142	}
	143
	144	for (int i = 0; i < mesh.getNumVertives(); i++) {
	145	int numComponents = mesh.getNumUVComponents(coords);
	146	System.out.print("[" + mesh.getTexCoordU(i, coords));
	147
	148	if (numComponents > 1) {
	149	System.out.print(", " + mesh.getTexCoordV(i, coords));
	150	}
	151
	152	if (numComponents > 2) {
	153	System.out.print(", " + mesh.getTexCoordW(i, coords));
	154	}
	155
	156	System.out.println("]");
	157	}
	158	}
	159
	160
	161	/**
	162	* Dumps a single material property to stdout.
	163	*
	164	* @param property the property
	165	*/
	166	public static void dumpMaterialProperty(AiMaterial.Property property) {
	167	System.out.print(property.getKey() + " " + property.getSemantic() +
	168	" " + property.getIndex() + ": ");
	169	Object data = property.getData();
	170
	171	if (data instanceof ByteBuffer) {
	172	ByteBuffer buf = (ByteBuffer) data;
	173	for (int i = 0; i < buf.capacity(); i++) {
	174	System.out.print(Integer.toHexString(buf.get(i) & 0xFF) + " ");
	175	}
	176
	177	System.out.println();
	178	}
	179	else {
	180	System.out.println(data.toString());
	181	}
	182	}
	183
	184
	185	/**
	186	* Dumps all properties of a material to stdout.
	187	*
	188	* @param material the material
	189	*/
	190	public static void dumpMaterial(AiMaterial material) {
	191	for (AiMaterial.Property prop : material.getProperties()) {
	192	dumpMaterialProperty(prop);
	193	}
	194	}
	195
	196
	197	/**
	198	* Dumps an animation channel to stdout.
	199	*
	200	* @param nodeAnim the channel
	201	*/
	202	public static void dumpNodeAnim(AiNodeAnim nodeAnim) {
	203	for (int i = 0; i < nodeAnim.getNumPosKeys(); i++) {
	204	System.out.println(i + ": " + nodeAnim.getPosKeyTime(i) +
	205	" ticks, " + nodeAnim.getPosKeyVector(i, Jassimp.BUILTIN));
	206	}
	207	}
	208	}

+256

-0

port/jassimp/jassimp/src/jassimp/Jassimp.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42	import java.io.IOException;
	43	import java.nio.ByteBuffer;
	44	import java.util.EnumSet;
	45	import java.util.Set;
	46
	47
	48
	49	/**
	50	* Entry point to the jassimp library.<p>
	51	*
	52	* Use {@link #importFile(String, Set)} to load a file.
	53	*
	54	* <h3>General Notes and Pitfalls</h3>
	55	* Due to the loading via JNI, strings (for example as returned by the
	56	* <code>getName()</code> methods) are not interned. You should therefore
	57	* compare strings the way it should be done, i.e, via <code>equals()</code>.
	58	* Pointer comparison will fail.
	59	*/
	60	public final class Jassimp {
	61
	62	/**
	63	* The default wrapper provider using built in types.
	64	*/
	65	public static final AiWrapperProvider<?, ?, ?, ?, ?> BUILTIN =
	66	new AiBuiltInWrapperProvider();
	67
	68
	69	/**
	70	* Imports a file via assimp without post processing.
	71	*
	72	* @param filename the file to import
	73	* @return the loaded scene
	74	* @throws IOException if an error occurs
	75	*/
	76	public static AiScene importFile(String filename) throws IOException {
	77
	78	return importFile(filename, EnumSet.noneOf(AiPostProcessSteps.class));
	79	}
	80
	81
	82	/**
	83	* Imports a file via assimp.
	84	*
	85	* @param filename the file to import
	86	* @param postProcessing post processing flags
	87	* @return the loaded scene, or null if an error occurred
	88	* @throws IOException if an error occurs
	89	*/
	90	public static AiScene importFile(String filename,
	91	Set<AiPostProcessSteps> postProcessing) throws IOException {
	92
	93	return aiImportFile(filename, AiPostProcessSteps.toRawValue(
	94	postProcessing));
	95	}
	96
	97
	98	/**
	99	* Returns a human readable error description.<p>
	100	*
	101	* This method can be called when one of the import methods fails, i.e.,
	102	* throws an exception, to get a human readable error description.
	103	*
	104	* @return the error string
	105	*/
	106	public static native String getErrorString();
	107
	108
	109	/**
	110	* Returns the active wrapper provider.<p>
	111	*
	112	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	113	* for details on wrappers).
	114	*
	115	* @return the active wrapper provider
	116	*/
	117	public static AiWrapperProvider<?, ?, ?, ?, ?> getWrapperProvider() {
	118	return s_wrapperProvider;
	119	}
	120
	121
	122	/**
	123	* Sets a new wrapper provider.<p>
	124	*
	125	* This method is part of the wrapped API (see {@link AiWrapperProvider}
	126	* for details on wrappers).
	127	*
	128	* @param wrapperProvider the new wrapper provider
	129	*/
	130	public static void setWrapperProvider(AiWrapperProvider<?, ?, ?, ?, ?>
	131	wrapperProvider) {
	132
	133	s_wrapperProvider = wrapperProvider;
	134	}
	135
	136
	137	/**
	138	* Helper method for wrapping a matrix.<p>
	139	*
	140	* Used by JNI, do not modify!
	141	*
	142	* @param data the matrix data
	143	* @return the wrapped matrix
	144	*/
	145	static Object wrapMatrix(float[] data) {
	146	return s_wrapperProvider.wrapMatrix4f(data);
	147	}
	148
	149
	150	/**
	151	* Helper method for wrapping a color (rgb).<p>
	152	*
	153	* Used by JNI, do not modify!
	154	*
	155	* @param red red component
	156	* @param green green component
	157	* @param blue blue component
	158	* @return the wrapped color
	159	*/
	160	static Object wrapColor3(float red, float green, float blue) {
	161	return wrapColor4(red, green, blue, 1.0f);
	162	}
	163
	164
	165	/**
	166	* Helper method for wrapping a color (rgba).<p>
	167	*
	168	* Used by JNI, do not modify!
	169	*
	170	* @param red red component
	171	* @param green green component
	172	* @param blue blue component
	173	* @param alpha alpha component
	174	* @return the wrapped color
	175	*/
	176	static Object wrapColor4(float red, float green, float blue, float alpha) {
	177	ByteBuffer temp = ByteBuffer.allocate(4 * 4);
	178	temp.putFloat(red);
	179	temp.putFloat(green);
	180	temp.putFloat(blue);
	181	temp.putFloat(alpha);
	182	temp.flip();
	183	return s_wrapperProvider.wrapColor(temp, 0);
	184	}
	185
	186
	187	/**
	188	* Helper method for wrapping a vector.<p>
	189	*
	190	* Used by JNI, do not modify!
	191	*
	192	* @param x x component
	193	* @param y y component
	194	* @param z z component
	195	* @return the wrapped vector
	196	*/
	197	static Object wrapVec3(float x, float y, float z) {
	198	ByteBuffer temp = ByteBuffer.allocate(3 * 4);
	199	temp.putFloat(x);
	200	temp.putFloat(y);
	201	temp.putFloat(z);
	202	temp.flip();
	203	return s_wrapperProvider.wrapVector3f(temp, 0, 3);
	204	}
	205
	206
	207	/**
	208	* Helper method for wrapping a scene graph node.<p>
	209	*
	210	* Used by JNI, do not modify!
	211	*
	212	* @param parent the parent node
	213	* @param matrix the transformation matrix
	214	* @param meshRefs array of matrix references
	215	* @param name the name of the node
	216	* @return the wrapped matrix
	217	*/
	218	static Object wrapSceneNode(Object parent, Object matrix, int[] meshRefs,
	219	String name) {
	220
	221	return s_wrapperProvider.wrapSceneNode(parent, matrix, meshRefs, name);
	222	}
	223
	224
	225	/**
	226	* The native interface.
	227	*
	228	* @param filename the file to load
	229	* @param postProcessing post processing flags
	230	* @return the loaded scene, or null if an error occurred
	231	* @throws IOException if an error occurs
	232	*/
	233	private static native AiScene aiImportFile(String filename,
	234	long postProcessing) throws IOException;
	235
	236
	237	/**
	238	* The active wrapper provider.
	239	*/
	240	private static AiWrapperProvider<?, ?, ?, ?, ?> s_wrapperProvider =
	241	new AiBuiltInWrapperProvider();
	242
	243
	244	/**
	245	* Pure static class, no accessible constructor.
	246	*/
	247	private Jassimp() {
	248	/* nothing to do */
	249	}
	250
	251
	252	static {
	253	System.loadLibrary("jassimp");
	254	}
	255	}

+66

-0

port/jassimp/jassimp/src/jassimp/JassimpConfig.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40	package jassimp;
	41
	42
	43	/**
	44	* Global configuration values (limits).
	45	*/
	46	public final class JassimpConfig {
	47	/**
	48	* Maximum number of vertex color sets.
	49	*/
	50	public static final int MAX_NUMBER_COLORSETS = 8;
	51
	52
	53	/**
	54	* Maximum number of texture coordinate sets.
	55	*/
	56	public static final int MAX_NUMBER_TEXCOORDS = 8;
	57
	58
	59	/**
	60	* Pure static class, no accessible constructor.
	61	*/
	62	private JassimpConfig() {
	63	/* nothing to do */
	64	}
	65	}

+45

-0

port/jassimp/jassimp/src/jassimp/package-info.java less more

	0	/*
	1	---------------------------------------------------------------------------
	2	Open Asset Import Library - Java Binding (jassimp)
	3	---------------------------------------------------------------------------
	4
	5	Copyright (c) 2006-2012, assimp team
	6
	7	All rights reserved.
	8
	9	Redistribution and use of this software in source and binary forms,
	10	with or without modification, are permitted provided that the following
	11	conditions are met:
	12
	13	* Redistributions of source code must retain the above
	14	copyright notice, this list of conditions and the
	15	following disclaimer.
	16
	17	* Redistributions in binary form must reproduce the above
	18	copyright notice, this list of conditions and the
	19	following disclaimer in the documentation and/or other
	20	materials provided with the distribution.
	21
	22	* Neither the name of the assimp team, nor the names of its
	23	contributors may be used to endorse or promote products
	24	derived from this software without specific prior
	25	written permission of the assimp team.
	26
	27	THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
	28	"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
	29	LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
	30	A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
	31	OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
	32	SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
	33	LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
	34	DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
	35	THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
	36	(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
	37	OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
	38	---------------------------------------------------------------------------
	39	*/
	40
	41	/**
	42	* Java binding for the Open Asset Import Library.
	43	*/
	44	package jassimp;

+1408

-0

port/jassimp/jassimp-native/src/jassimp.cpp less more

	0	#include "jassimp.h"
	1
	2	#include <assimp/cimport.h>
	3	#include <assimp/scene.h>
	4
	5
	6	#ifdef JNI_LOG
	7	#define lprintf(...) printf (__VA_ARGS__)
	8	#else
	9	#define lprintf
	10	#endif
	11
	12
	13	static bool createInstance(JNIEnv env, const char className, jobject& newInstance)
	14	{
	15	jclass clazz = env->FindClass(className);
	16
	17	if (NULL == clazz)
	18	{
	19	lprintf("could not find class %s\n", className);
	20	return false;
	21	}
	22
	23	jmethodID ctr_id = env->GetMethodID(clazz, "<init>", "()V");
	24
	25	if (NULL == ctr_id)
	26	{
	27	lprintf("could not find no-arg constructor for class %s\n", className);
	28	return false;
	29	}
	30
	31	newInstance = env->NewObject(clazz, ctr_id);
	32
	33	if (NULL == newInstance)
	34	{
	35	lprintf("error calling no-arg constructor for class %s\n", className);
	36	return false;
	37	}
	38
	39	return true;
	40	}
	41
	42
	43	static bool createInstance(JNIEnv env, const char className, const char* signature, const jvalue* params, jobject& newInstance)
	44	{
	45	jclass clazz = env->FindClass(className);
	46
	47	if (NULL == clazz)
	48	{
	49	lprintf("could not find class %s\n", className);
	50	return false;
	51	}
	52
	53	jmethodID ctr_id = env->GetMethodID(clazz, "<init>", signature);
	54
	55	if (NULL == ctr_id)
	56	{
	57	lprintf("could not find no-arg constructor for class %s\n", className);
	58	return false;
	59	}
	60
	61	newInstance = env->NewObjectA(clazz, ctr_id, params);
	62
	63	if (NULL == newInstance)
	64	{
	65	lprintf("error calling constructor for class %s, signature %s\n", className, signature);
	66	return false;
	67	}
	68
	69	return true;
	70	}
	71
	72
	73	static bool getField(JNIEnv env, jobject object, const char fieldName, const char* signature, jobject& field)
	74	{
	75	jclass clazz = env->GetObjectClass(object);
	76
	77	if (NULL == clazz)
	78	{
	79	lprintf("could not get class for object\n");
	80	return false;
	81	}
	82
	83	jfieldID fieldId = env->GetFieldID(clazz, fieldName, signature);
	84
	85	if (NULL == fieldId)
	86	{
	87	lprintf("could not get field %s with signature %s\n", fieldName, signature);
	88	return false;
	89	}
	90
	91	field = env->GetObjectField(object, fieldId);
	92
	93	return true;
	94	}
	95
	96
	97	static bool setIntField(JNIEnv env, jobject object, const char fieldName, jint value)
	98	{
	99	jclass clazz = env->GetObjectClass(object);
	100
	101	if (NULL == clazz)
	102	{
	103	lprintf("could not get class for object\n");
	104	return false;
	105	}
	106
	107	jfieldID fieldId = env->GetFieldID(clazz, fieldName, "I");
	108
	109	if (NULL == fieldId)
	110	{
	111	lprintf("could not get field %s with signature I\n", fieldName);
	112	return false;
	113	}
	114
	115	env->SetIntField(object, fieldId, value);
	116
	117	return true;
	118	}
	119
	120
	121	static bool setFloatField(JNIEnv env, jobject object, const char fieldName, jfloat value)
	122	{
	123	jclass clazz = env->GetObjectClass(object);
	124
	125	if (NULL == clazz)
	126	{
	127	lprintf("could not get class for object\n");
	128	return false;
	129	}
	130
	131	jfieldID fieldId = env->GetFieldID(clazz, fieldName, "F");
	132
	133	if (NULL == fieldId)
	134	{
	135	lprintf("could not get field %s with signature F\n", fieldName);
	136	return false;
	137	}
	138
	139	env->SetFloatField(object, fieldId, value);
	140
	141	return true;
	142	}
	143
	144
	145	static bool setObjectField(JNIEnv env, jobject object, const char fieldName, const char* signature, jobject value)
	146	{
	147	jclass clazz = env->GetObjectClass(object);
	148
	149	if (NULL == clazz)
	150	{
	151	lprintf("could not get class for object\n");
	152	return false;
	153	}
	154
	155	jfieldID fieldId = env->GetFieldID(clazz, fieldName, signature);
	156
	157	if (NULL == fieldId)
	158	{
	159	lprintf("could not get field %s with signature %s\n", fieldName, signature);
	160	return false;
	161	}
	162
	163	env->SetObjectField(object, fieldId, value);
	164
	165	return true;
	166	}
	167
	168
	169	static bool getStaticField(JNIEnv env, const char className, const char* fieldName, const char* signature, jobject& field)
	170	{
	171	jclass clazz = env->FindClass(className);
	172
	173	if (NULL == clazz)
	174	{
	175	lprintf("could not find class %s\n", className);
	176	return false;
	177	}
	178
	179	jfieldID fieldId = env->GetFieldID(clazz, fieldName, signature);
	180
	181	if (NULL == fieldId)
	182	{
	183	lprintf("could not get field %s with signature %s\n", fieldName, signature);
	184	return false;
	185	}
	186
	187	field = env->GetStaticObjectField(clazz, fieldId);
	188
	189	return true;
	190	}
	191
	192
	193	static bool call(JNIEnv env, jobject object, const char typeName, const char* methodName,
	194	const char* signature, const jvalue* params)
	195	{
	196	jclass clazz = env->FindClass(typeName);
	197
	198	if (NULL == clazz)
	199	{
	200	lprintf("could not find class %s\n", typeName);
	201	return false;
	202	}
	203
	204	jmethodID mid = env->GetMethodID(clazz, methodName, signature);
	205
	206	if (NULL == mid)
	207	{
	208	lprintf("could not find method %s with signature %s in type %s\n", methodName, signature, typeName);
	209	return false;
	210	}
	211
	212	env->CallVoidMethodA(object, mid, params);
	213
	214	return true;
	215	}
	216
	217
	218	static bool callStaticObject(JNIEnv env, const char typeName, const char* methodName,
	219	const char* signature, const jvalue* params, jobject& returnValue)
	220	{
	221	jclass clazz = env->FindClass(typeName);
	222
	223	if (NULL == clazz)
	224	{
	225	lprintf("could not find class %s\n", typeName);
	226	return false;
	227	}
	228
	229	jmethodID mid = env->GetStaticMethodID(clazz, methodName, signature);
	230
	231	if (NULL == mid)
	232	{
	233	lprintf("could not find method %s with signature %s in type %s\n", methodName, signature, typeName);
	234	return false;
	235	}
	236
	237	returnValue = env->CallStaticObjectMethodA(clazz, mid, params);
	238
	239	return true;
	240	}
	241
	242
	243	static bool copyBuffer(JNIEnv env, jobject jMesh, const char jBufferName, void* cData, size_t size)
	244	{
	245	jobject jBuffer = NULL;
	246
	247	if (!getField(env, jMesh, jBufferName, "Ljava/nio/ByteBuffer;", jBuffer))
	248	{
	249	return false;
	250	}
	251
	252	if (env->GetDirectBufferCapacity(jBuffer) != size)
	253	{
	254	lprintf("invalid direct buffer, expected %u, got %u\n", size, env->GetDirectBufferCapacity(jBuffer));
	255	return false;
	256	}
	257
	258	void* jBufferPtr = env->GetDirectBufferAddress(jBuffer);
	259
	260	if (NULL == jBufferPtr)
	261	{
	262	lprintf("could not access direct buffer\n");
	263	return false;
	264	}
	265
	266	memcpy(jBufferPtr, cData, size);
	267
	268	return true;
	269	}
	270
	271
	272	static bool copyBufferArray(JNIEnv env, jobject jMesh, const char jBufferName, int index, void* cData, size_t size)
	273	{
	274	jobject jBufferArray = NULL;
	275
	276	if (!getField(env, jMesh, jBufferName, "[Ljava/nio/ByteBuffer;", jBufferArray))
	277	{
	278	return false;
	279	}
	280
	281	jobject jBuffer = env->GetObjectArrayElement((jobjectArray) jBufferArray, index);
	282
	283	if (env->GetDirectBufferCapacity(jBuffer) != size)
	284	{
	285	lprintf("invalid direct buffer, expected %u, got %u\n", size, env->GetDirectBufferCapacity(jBuffer));
	286	return false;
	287	}
	288
	289	void* jBufferPtr = env->GetDirectBufferAddress(jBuffer);
	290
	291	if (NULL == jBufferPtr)
	292	{
	293	lprintf("could not access direct buffer\n");
	294	return false;
	295	}
	296
	297	memcpy(jBufferPtr, cData, size);
	298
	299	return true;
	300	}
	301
	302
	303
	304	static bool loadMeshes(JNIEnv env, const aiScene cScene, jobject& jScene)
	305	{
	306	for (unsigned int meshNr = 0; meshNr < cScene->mNumMeshes; meshNr++)
	307	{
	308	const aiMesh *cMesh = cScene->mMeshes[meshNr];
	309
	310	lprintf("converting mesh %s ...\n", cMesh->mName.C_Str());
	311
	312	/* create mesh */
	313	jobject jMesh = NULL;
	314
	315	if (!createInstance(env, "jassimp/AiMesh", jMesh))
	316	{
	317	return false;
	318	}
	319
	320
	321	/* add mesh to m_meshes java.util.List */
	322	jobject jMeshes = NULL;
	323
	324	if (!getField(env, jScene, "m_meshes", "Ljava/util/List;", jMeshes))
	325	{
	326	return false;
	327	}
	328
	329	jvalue addParams[1];
	330	addParams[0].l = jMesh;
	331	if (!call(env, jMeshes, "java/util/Collection", "add", "(Ljava/lang/Object;)Z", addParams))
	332	{
	333	return false;
	334	}
	335
	336
	337	/* set general mesh data in java */
	338	jvalue setTypesParams[1];
	339	setTypesParams[0].i = cMesh->mPrimitiveTypes;
	340	if (!call(env, jMesh, "jassimp/AiMesh", "setPrimitiveTypes", "(I)V", setTypesParams))
	341	{
	342	return false;
	343	}
	344
	345
	346	if (!setIntField(env, jMesh, "m_materialIndex", cMesh->mMaterialIndex))
	347	{
	348	return false;
	349	}
	350
	351	if (!setObjectField(env, jMesh, "m_name", "Ljava/lang/String;", env->NewStringUTF(cMesh->mName.C_Str())))
	352	{
	353	return false;
	354	}
	355
	356
	357	/* determine face buffer size */
	358	bool isPureTriangle = cMesh->mPrimitiveTypes == aiPrimitiveType_TRIANGLE;
	359	size_t faceBufferSize;
	360	if (isPureTriangle)
	361	{
	362	faceBufferSize = cMesh->mNumFaces * 3 * sizeof(unsigned int);
	363	}
	364	else
	365	{
	366	int numVertexReferences = 0;
	367	for (unsigned int face = 0; face < cMesh->mNumFaces; face++)
	368	{
	369	numVertexReferences += cMesh->mFaces[face].mNumIndices;
	370	}
	371
	372	faceBufferSize = numVertexReferences * sizeof(unsigned int);
	373	}
	374
	375
	376	/* allocate buffers - we do this from java so they can be garbage collected */
	377	jvalue allocateBuffersParams[4];
	378	allocateBuffersParams[0].i = cMesh->mNumVertices;
	379	allocateBuffersParams[1].i = cMesh->mNumFaces;
	380	allocateBuffersParams[2].z = isPureTriangle;
	381	allocateBuffersParams[3].i = (jint) faceBufferSize;
	382	if (!call(env, jMesh, "jassimp/AiMesh", "allocateBuffers", "(IIZI)V", allocateBuffersParams))
	383	{
	384	return false;
	385	}
	386
	387
	388	if (cMesh->mNumVertices > 0)
	389	{
	390	/* push vertex data to java */
	391	if (!copyBuffer(env, jMesh, "m_vertices", cMesh->mVertices, cMesh->mNumVertices * sizeof(aiVector3D)))
	392	{
	393	lprintf("could not copy vertex data\n");
	394	return false;
	395	}
	396
	397	lprintf(" with %u vertices\n", cMesh->mNumVertices);
	398	}
	399
	400
	401	/* push face data to java */
	402	if (cMesh->mNumFaces > 0)
	403	{
	404	if (isPureTriangle)
	405	{
	406	char* faceBuffer = (char*) malloc(faceBufferSize);
	407
	408	size_t faceDataSize = 3 * sizeof(unsigned int);
	409	for (unsigned int face = 0; face < cMesh->mNumFaces; face++)
	410	{
	411	memcpy(faceBuffer + face * faceDataSize, cMesh->mFaces[face].mIndices, faceDataSize);
	412	}
	413
	414	bool res = copyBuffer(env, jMesh, "m_faces", faceBuffer, faceBufferSize);
	415
	416	free(faceBuffer);
	417
	418	if (!res)
	419	{
	420	lprintf("could not copy face data\n");
	421	return false;
	422	}
	423	}
	424	else
	425	{
	426	char* faceBuffer = (char*) malloc(faceBufferSize);
	427	char* offsetBuffer = (char) malloc(cMesh->mNumFaces sizeof(unsigned int));
	428
	429	size_t faceBufferPos = 0;
	430	for (unsigned int face = 0; face < cMesh->mNumFaces; face++)
	431	{
	432	size_t faceBufferOffset = faceBufferPos / sizeof(unsigned int);
	433	memcpy(offsetBuffer + face * sizeof(unsigned int), &faceBufferOffset, sizeof(unsigned int));
	434
	435	size_t faceDataSize = cMesh->mFaces[face].mNumIndices * sizeof(unsigned int);
	436	memcpy(faceBuffer + faceBufferPos, cMesh->mFaces[face].mIndices, faceDataSize);
	437	faceBufferPos += faceDataSize;
	438	}
	439
	440	if (faceBufferPos != faceBufferSize)
	441	{
	442	/* this should really not happen */
	443	lprintf("faceBufferPos %u, faceBufferSize %u\n", faceBufferPos, faceBufferSize);
	444	env->FatalError("error copying face data");
	445	exit(-1);
	446	}
	447
	448
	449	bool res = copyBuffer(env, jMesh, "m_faces", faceBuffer, faceBufferSize);
	450	res &= copyBuffer(env, jMesh, "m_faceOffsets", offsetBuffer, cMesh->mNumFaces * sizeof(unsigned int));
	451
	452	free(faceBuffer);
	453	free(offsetBuffer);
	454
	455	if (!res)
	456	{
	457	lprintf("could not copy face data\n");
	458	return false;
	459	}
	460	}
	461
	462	lprintf(" with %u faces\n", cMesh->mNumFaces);
	463	}
	464
	465
	466	/* push normals to java */
	467	if (cMesh->HasNormals())
	468	{
	469	jvalue allocateDataChannelParams[2];
	470	allocateDataChannelParams[0].i = 0;
	471	allocateDataChannelParams[1].i = 0;
	472	if (!call(env, jMesh, "jassimp/AiMesh", "allocateDataChannel", "(II)V", allocateDataChannelParams))
	473	{
	474	lprintf("could not allocate normal data channel\n");
	475	return false;
	476	}
	477	if (!copyBuffer(env, jMesh, "m_normals", cMesh->mNormals, cMesh->mNumVertices * 3 * sizeof(float)))
	478	{
	479	lprintf("could not copy normal data\n");
	480	return false;
	481	}
	482
	483	lprintf(" with normals\n");
	484	}
	485
	486
	487	/* push tangents to java */
	488	if (cMesh->mTangents != NULL)
	489	{
	490	jvalue allocateDataChannelParams[2];
	491	allocateDataChannelParams[0].i = 1;
	492	allocateDataChannelParams[1].i = 0;
	493	if (!call(env, jMesh, "jassimp/AiMesh", "allocateDataChannel", "(II)V", allocateDataChannelParams))
	494	{
	495	lprintf("could not allocate tangents data channel\n");
	496	return false;
	497	}
	498	if (!copyBuffer(env, jMesh, "m_tangents", cMesh->mTangents, cMesh->mNumVertices * 3 * sizeof(float)))
	499	{
	500	lprintf("could not copy tangents data\n");
	501	return false;
	502	}
	503
	504	lprintf(" with tangents\n");
	505	}
	506
	507
	508	/* push bitangents to java */
	509	if (cMesh->mBitangents != NULL)
	510	{
	511	jvalue allocateDataChannelParams[2];
	512	allocateDataChannelParams[0].i = 2;
	513	allocateDataChannelParams[1].i = 0;
	514	if (!call(env, jMesh, "jassimp/AiMesh", "allocateDataChannel", "(II)V", allocateDataChannelParams))
	515	{
	516	lprintf("could not allocate bitangents data channel\n");
	517	return false;
	518	}
	519	if (!copyBuffer(env, jMesh, "m_bitangents", cMesh->mBitangents, cMesh->mNumVertices * 3 * sizeof(float)))
	520	{
	521	lprintf("could not copy bitangents data\n");
	522	return false;
	523	}
	524
	525	lprintf(" with bitangents\n");
	526	}
	527
	528
	529	/* push color sets to java */
	530	for (int c = 0; c < AI_MAX_NUMBER_OF_COLOR_SETS; c++)
	531	{
	532	if (cMesh->mColors[c] != NULL)
	533	{
	534	jvalue allocateDataChannelParams[2];
	535	allocateDataChannelParams[0].i = 3;
	536	allocateDataChannelParams[1].i = c;
	537	if (!call(env, jMesh, "jassimp/AiMesh", "allocateDataChannel", "(II)V", allocateDataChannelParams))
	538	{
	539	lprintf("could not allocate colorset data channel\n");
	540	return false;
	541	}
	542	if (!copyBufferArray(env, jMesh, "m_colorsets", c, cMesh->mColors[c], cMesh->mNumVertices * 4 * sizeof(float)))
	543	{
	544	lprintf("could not copy colorset data\n");
	545	return false;
	546	}
	547
	548	lprintf(" with colorset[%d]\n", c);
	549	}
	550	}
	551
	552
	553	/* push tex coords to java */
	554	for (int c = 0; c < AI_MAX_NUMBER_OF_TEXTURECOORDS; c++)
	555	{
	556	if (cMesh->mTextureCoords[c] != NULL)
	557	{
	558	jvalue allocateDataChannelParams[2];
	559
	560	switch (cMesh->mNumUVComponents[c])
	561	{
	562	case 1:
	563	allocateDataChannelParams[0].i = 4;
	564	break;
	565	case 2:
	566	allocateDataChannelParams[0].i = 5;
	567	break;
	568	case 3:
	569	allocateDataChannelParams[0].i = 6;
	570	break;
	571	default:
	572	return false;
	573	}
	574
	575	allocateDataChannelParams[1].i = c;
	576	if (!call(env, jMesh, "jassimp/AiMesh", "allocateDataChannel", "(II)V", allocateDataChannelParams))
	577	{
	578	lprintf("could not allocate texture coordinates data channel\n");
	579	return false;
	580	}
	581
	582	/* gather data */
	583	size_t coordBufferSize = cMesh->mNumVertices * cMesh->mNumUVComponents[c] * sizeof(float);
	584	char* coordBuffer = (char*) malloc(coordBufferSize);
	585	size_t coordBufferOffset = 0;
	586
	587	for (unsigned int v = 0; v < cMesh->mNumVertices; v++)
	588	{
	589	memcpy(coordBuffer + coordBufferOffset, &cMesh->mTextureCoords[c][v], cMesh->mNumUVComponents[c] * sizeof(float));
	590	coordBufferOffset += cMesh->mNumUVComponents[c] * sizeof(float);
	591	}
	592
	593	if (coordBufferOffset != coordBufferSize)
	594	{
	595	/* this should really not happen */
	596	lprintf("coordBufferPos %u, coordBufferSize %u\n", coordBufferOffset, coordBufferSize);
	597	env->FatalError("error copying coord data");
	598	exit(-1);
	599	}
	600
	601	bool res = copyBufferArray(env, jMesh, "m_texcoords", c, coordBuffer, coordBufferSize);
	602
	603	free(coordBuffer);
	604
	605	if (!res)
	606	{
	607	lprintf("could not copy texture coordinates data\n");
	608	return false;
	609	}
	610
	611	lprintf(" with %uD texcoord[%d]\n", cMesh->mNumUVComponents[c], c);
	612	}
	613	}
	614
	615
	616	for (unsigned int b = 0; b < cMesh->mNumBones; b++)
	617	{
	618	aiBone *cBone = cMesh->mBones[b];
	619
	620	jobject jBone;
	621	if (!createInstance(env, "jassimp/AiBone", jBone))
	622	{
	623	return false;
	624	}
	625
	626	/* add bone to bone list */
	627	jobject jBones = NULL;
	628
	629	if (!getField(env, jMesh, "m_bones", "Ljava/util/List;", jBones))
	630	{
	631	return false;
	632	}
	633
	634	jvalue addParams[1];
	635	addParams[0].l = jBone;
	636	if (!call(env, jBones, "java/util/Collection", "add", "(Ljava/lang/Object;)Z", addParams))
	637	{
	638	return false;
	639	}
	640
	641	/* set bone data */
	642	if (!setObjectField(env, jBone, "m_name", "Ljava/lang/String;", env->NewStringUTF(cBone->mName.C_Str())))
	643	{
	644	return false;
	645	}
	646
	647	/* add bone weights */
	648	for (unsigned int w = 0; w < cBone->mNumWeights; w++)
	649	{
	650	jobject jBoneWeight;
	651	if (!createInstance(env, "jassimp/AiBoneWeight", jBoneWeight))
	652	{
	653	return false;
	654	}
	655
	656	/* add boneweight to bone list */
	657	jobject jBoneWeights = NULL;
	658
	659	if (!getField(env, jBone, "m_boneWeights", "Ljava/util/List;", jBoneWeights))
	660	{
	661	return false;
	662	}
	663
	664
	665	/* copy offset matrix */
	666	jfloatArray jMatrixArr = env->NewFloatArray(16);
	667	env->SetFloatArrayRegion(jMatrixArr, 0, 16, (jfloat*) &cBone->mOffsetMatrix);
	668
	669	jvalue wrapParams[1];
	670	wrapParams[0].l = jMatrixArr;
	671	jobject jMatrix;
	672
	673	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapMatrix", "([F)Ljava/lang/Object;", wrapParams, jMatrix))
	674	{
	675	return false;
	676	}
	677
	678	if (!setObjectField(env, jBone, "m_offsetMatrix", "Ljava/lang/Object;", jMatrix))
	679	{
	680	return false;
	681	}
	682
	683
	684	jvalue addBwParams[1];
	685	addBwParams[0].l = jBoneWeight;
	686	if (!call(env, jBoneWeights, "java/util/Collection", "add", "(Ljava/lang/Object;)Z", addBwParams))
	687	{
	688	return false;
	689	}
	690
	691
	692	if (!setIntField(env, jBoneWeight, "m_vertexId", cBone->mWeights[w].mVertexId))
	693	{
	694	return false;
	695	}
	696
	697	if (!setFloatField(env, jBoneWeight, "m_weight", cBone->mWeights[w].mWeight))
	698	{
	699	return false;
	700	}
	701	}
	702	}
	703	}
	704
	705	return true;
	706	}
	707
	708
	709	static bool loadSceneNode(JNIEnv env, const aiNode cNode, jobject parent, jobject* loadedNode = NULL)
	710	{
	711	lprintf(" converting node %s ...\n", cNode->mName.C_Str());
	712
	713	/* wrap matrix */
	714	jfloatArray jMatrixArr = env->NewFloatArray(16);
	715	env->SetFloatArrayRegion(jMatrixArr, 0, 16, (jfloat*) &cNode->mTransformation);
	716
	717	jvalue wrapMatParams[1];
	718	wrapMatParams[0].l = jMatrixArr;
	719	jobject jMatrix;
	720
	721	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapMatrix", "([F)Ljava/lang/Object;", wrapMatParams, jMatrix))
	722	{
	723	return false;
	724	}
	725
	726
	727	/* create mesh references array */
	728	jintArray jMeshrefArr = env->NewIntArray(cNode->mNumMeshes);
	729	jint temp = (jint) malloc(sizeof(jint) * cNode->mNumMeshes);
	730
	731	for (unsigned int i = 0; i < cNode->mNumMeshes; i++)
	732	{
	733	temp[i] = cNode->mMeshes[i];
	734	}
	735	env->SetIntArrayRegion(jMeshrefArr, 0, cNode->mNumMeshes, (jint*) temp);
	736
	737	free(temp);
	738
	739
	740	/* convert name */
	741	jstring jNodeName = env->NewStringUTF(cNode->mName.C_Str());
	742
	743
	744	/* wrap scene node */
	745	jvalue wrapNodeParams[4];
	746	wrapNodeParams[0].l = parent;
	747	wrapNodeParams[1].l = jMatrix;
	748	wrapNodeParams[2].l = jMeshrefArr;
	749	wrapNodeParams[3].l = jNodeName;
	750	jobject jNode;
	751	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapSceneNode",
	752	"(Ljava/lang/Object;Ljava/lang/Object;[ILjava/lang/String;)Ljava/lang/Object;", wrapNodeParams, jNode))
	753	{
	754	return false;
	755	}
	756
	757
	758	/* and recurse */
	759	for (unsigned int c = 0; c < cNode->mNumChildren; c++)
	760	{
	761	if (!loadSceneNode(env, cNode->mChildren[c], jNode))
	762	{
	763	return false;
	764	}
	765	}
	766
	767	if (NULL != loadedNode)
	768	{
	769	*loadedNode = jNode;
	770	}
	771
	772	return true;
	773	}
	774
	775
	776	static bool loadSceneGraph(JNIEnv env, const aiScene cScene, jobject& jScene)
	777	{
	778	lprintf("converting scene graph ...\n");
	779
	780	if (NULL != cScene->mRootNode)
	781	{
	782	jobject jRoot;
	783
	784	if (!loadSceneNode(env, cScene->mRootNode, NULL, &jRoot))
	785	{
	786	return false;
	787	}
	788
	789	if (!setObjectField(env, jScene, "m_sceneRoot", "Ljava/lang/Object;", jRoot))
	790	{
	791	return false;
	792	}
	793	}
	794
	795	lprintf("converting scene graph finished\n");
	796
	797	return true;
	798	}
	799
	800
	801	static bool loadMaterials(JNIEnv env, const aiScene cScene, jobject& jScene)
	802	{
	803	for (unsigned int m = 0; m < cScene->mNumMaterials; m++)
	804	{
	805	const aiMaterial* cMaterial = cScene->mMaterials[m];
	806
	807	lprintf("converting material ...\n", m);
	808
	809	jobject jMaterial = NULL;
	810
	811	if (!createInstance(env, "jassimp/AiMaterial", jMaterial))
	812	{
	813	return false;
	814	}
	815
	816	/* add material to m_materials java.util.List */
	817	jobject jMaterials = NULL;
	818
	819	if (!getField(env, jScene, "m_materials", "Ljava/util/List;", jMaterials))
	820	{
	821	return false;
	822	}
	823
	824	jvalue addMatParams[1];
	825	addMatParams[0].l = jMaterial;
	826	if (!call(env, jMaterials, "java/util/Collection", "add", "(Ljava/lang/Object;)Z", addMatParams))
	827	{
	828	return false;
	829	}
	830
	831	/* set texture numbers */
	832	for (int ttInd = aiTextureType_DIFFUSE; ttInd < aiTextureType_UNKNOWN; ttInd++)
	833	{
	834	aiTextureType tt = static_cast<aiTextureType>(ttInd);
	835
	836	unsigned int num = cMaterial->GetTextureCount(tt);
	837
	838	lprintf(" found %d textures of type %d ...\n", num, ttInd);
	839
	840	jvalue setNumberParams[2];
	841	setNumberParams[0].i = ttInd;
	842	setNumberParams[1].i = num;
	843
	844	if (!call(env, jMaterial, "jassimp/AiMaterial", "setTextureNumber", "(II)V", setNumberParams))
	845	{
	846	return false;
	847	}
	848	}
	849
	850
	851	for (unsigned int p = 0; p < cMaterial->mNumProperties; p++)
	852	{
	853	//printf("%s - %u - %u\n", cScene->mMaterials[m]->mProperties[p]->mKey.C_Str(),
	854	// cScene->mMaterials[m]->mProperties[p]->mSemantic,
	855	// cScene->mMaterials[m]->mProperties[p]->mDataLength);
	856
	857	const aiMaterialProperty* cProperty = cMaterial->mProperties[p];
	858
	859	lprintf(" converting property %s ...\n", cProperty->mKey.C_Str());
	860
	861	jobject jProperty = NULL;
	862
	863	jvalue constructorParams[5];
	864	constructorParams[0].l = env->NewStringUTF(cProperty->mKey.C_Str());
	865	constructorParams[1].i = cProperty->mSemantic;
	866	constructorParams[2].i = cProperty->mIndex;
	867	constructorParams[3].i = cProperty->mType;
	868
	869
	870	/* special case conversion for color3 */
	871	if (NULL != strstr(cProperty->mKey.C_Str(), "clr") &&
	872	cProperty->mType == aiPTI_Float &&
	873	cProperty->mDataLength == 3 * sizeof(float))
	874	{
	875	jobject jData = NULL;
	876
	877	/* wrap color */
	878	jvalue wrapColorParams[3];
	879	wrapColorParams[0].f = ((float*) cProperty->mData)[0];
	880	wrapColorParams[1].f = ((float*) cProperty->mData)[1];
	881	wrapColorParams[2].f = ((float*) cProperty->mData)[2];
	882	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapColor3", "(FFF)Ljava/lang/Object;", wrapColorParams, jData))
	883	{
	884	return false;
	885	}
	886
	887	constructorParams[4].l = jData;
	888	if (!createInstance(env, "jassimp/AiMaterial$Property", "(Ljava/lang/String;IIILjava/lang/Object;)V",
	889	constructorParams, jProperty))
	890	{
	891	return false;
	892	}
	893	}
	894	/* special case conversion for color4 */
	895	else if (NULL != strstr(cProperty->mKey.C_Str(), "clr") &&
	896	cProperty->mType == aiPTI_Float &&
	897	cProperty->mDataLength == 4 * sizeof(float))
	898	{
	899	jobject jData = NULL;
	900
	901	/* wrap color */
	902	jvalue wrapColorParams[4];
	903	wrapColorParams[0].f = ((float*) cProperty->mData)[0];
	904	wrapColorParams[1].f = ((float*) cProperty->mData)[1];
	905	wrapColorParams[2].f = ((float*) cProperty->mData)[2];
	906	wrapColorParams[3].f = ((float*) cProperty->mData)[3];
	907	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapColor4", "(FFFF)Ljava/lang/Object;", wrapColorParams, jData))
	908	{
	909	return false;
	910	}
	911
	912	constructorParams[4].l = jData;
	913	if (!createInstance(env, "jassimp/AiMaterial$Property", "(Ljava/lang/String;IIILjava/lang/Object;)V",
	914	constructorParams, jProperty))
	915	{
	916	return false;
	917	}
	918	}
	919	else if (cProperty->mType == aiPTI_Float && cProperty->mDataLength == sizeof(float))
	920	{
	921	jobject jData = NULL;
	922
	923	jvalue newFloatParams[1];
	924	newFloatParams[0].f = ((float*) cProperty->mData)[0];
	925	if (!createInstance(env, "java/lang/Float", "(F)V", newFloatParams, jData))
	926	{
	927	return false;
	928	}
	929
	930	constructorParams[4].l = jData;
	931	if (!createInstance(env, "jassimp/AiMaterial$Property", "(Ljava/lang/String;IIILjava/lang/Object;)V",
	932	constructorParams, jProperty))
	933	{
	934	return false;
	935	}
	936	}
	937	else if (cProperty->mType == aiPTI_Integer && cProperty->mDataLength == sizeof(int))
	938	{
	939	jobject jData = NULL;
	940
	941	jvalue newIntParams[1];
	942	newIntParams[0].i = ((int*) cProperty->mData)[0];
	943	if (!createInstance(env, "java/lang/Integer", "(I)V", newIntParams, jData))
	944	{
	945	return false;
	946	}
	947
	948	constructorParams[4].l = jData;
	949	if (!createInstance(env, "jassimp/AiMaterial$Property", "(Ljava/lang/String;IIILjava/lang/Object;)V",
	950	constructorParams, jProperty))
	951	{
	952	return false;
	953	}
	954	}
	955	else if (cProperty->mType == aiPTI_String)
	956	{
	957	/* skip length prefix */
	958	jobject jData = env->NewStringUTF(cProperty->mData + 4);
	959
	960	constructorParams[4].l = jData;
	961	if (!createInstance(env, "jassimp/AiMaterial$Property", "(Ljava/lang/String;IIILjava/lang/Object;)V",
	962	constructorParams, jProperty))
	963	{
	964	return false;
	965	}
	966	}
	967	else
	968	{
	969	constructorParams[4].i = cProperty->mDataLength;
	970
	971	/* generic copy code, uses dump ByteBuffer on java side */
	972	if (!createInstance(env, "jassimp/AiMaterial$Property", "(Ljava/lang/String;IIII)V", constructorParams, jProperty))
	973	{
	974	return false;
	975	}
	976
	977	jobject jBuffer = NULL;
	978
	979	if (!getField(env, jProperty, "m_data", "Ljava/lang/Object;", jBuffer))
	980	{
	981	return false;
	982	}
	983
	984	if (env->GetDirectBufferCapacity(jBuffer) != cProperty->mDataLength)
	985	{
	986	lprintf("invalid direct buffer\n");
	987	return false;
	988	}
	989
	990	void* jBufferPtr = env->GetDirectBufferAddress(jBuffer);
	991
	992	if (NULL == jBufferPtr)
	993	{
	994	lprintf("could not access direct buffer\n");
	995	return false;
	996	}
	997
	998	memcpy(jBufferPtr, cProperty->mData, cProperty->mDataLength);
	999	}
	1000
	1001
	1002	/* add property */
	1003	jobject jProperties = NULL;
	1004
	1005	if (!getField(env, jMaterial, "m_properties", "Ljava/util/List;", jProperties))
	1006	{
	1007	return false;
	1008	}
	1009
	1010	jvalue addPropParams[1];
	1011	addPropParams[0].l = jProperty;
	1012	if (!call(env, jProperties, "java/util/Collection", "add", "(Ljava/lang/Object;)Z", addPropParams))
	1013	{
	1014	return false;
	1015	}
	1016	}
	1017	}
	1018
	1019	lprintf("materials finished\n");
	1020
	1021	return true;
	1022	}
	1023
	1024
	1025	static bool loadAnimations(JNIEnv env, const aiScene cScene, jobject& jScene)
	1026	{
	1027	lprintf("converting %d animations ...\n", cScene->mNumAnimations);
	1028
	1029	for (unsigned int a = 0; a < cScene->mNumAnimations; a++)
	1030	{
	1031	const aiAnimation *cAnimation = cScene->mAnimations[a];
	1032
	1033	lprintf(" converting animation %s ...\n", cAnimation->mName.C_Str());
	1034
	1035	jobject jAnimation;
	1036	jvalue newAnimParams[3];
	1037	newAnimParams[0].l = env->NewStringUTF(cAnimation->mName.C_Str());
	1038	newAnimParams[1].d = cAnimation->mDuration;
	1039	newAnimParams[2].d = cAnimation->mTicksPerSecond;
	1040
	1041	if (!createInstance(env, "jassimp/AiAnimation", "(Ljava/lang/String;DD)V", newAnimParams, jAnimation))
	1042	{
	1043	return false;
	1044	}
	1045
	1046	/* add animation to m_animations java.util.List */
	1047	jobject jAnimations = NULL;
	1048
	1049	if (!getField(env, jScene, "m_animations", "Ljava/util/List;", jAnimations))
	1050	{
	1051	return false;
	1052	}
	1053
	1054	jvalue addParams[1];
	1055	addParams[0].l = jAnimation;
	1056	if (!call(env, jAnimations, "java/util/Collection", "add", "(Ljava/lang/Object;)Z", addParams))
	1057	{
	1058	return false;
	1059	}
	1060
	1061
	1062	for (unsigned int c = 0; c < cAnimation->mNumChannels; c++)
	1063	{
	1064	const aiNodeAnim *cNodeAnim = cAnimation->mChannels[c];
	1065
	1066	jobject jNodeAnim;
	1067	jvalue newNodeAnimParams[6];
	1068	newNodeAnimParams[0].l = env->NewStringUTF(cNodeAnim->mNodeName.C_Str());
	1069	newNodeAnimParams[1].i = cNodeAnim->mNumPositionKeys;
	1070	newNodeAnimParams[2].i = cNodeAnim->mNumRotationKeys;
	1071	newNodeAnimParams[3].i = cNodeAnim->mNumScalingKeys;
	1072	newNodeAnimParams[4].i = cNodeAnim->mPreState;
	1073	newNodeAnimParams[5].i = cNodeAnim->mPostState;
	1074
	1075	if (!createInstance(env, "jassimp/AiNodeAnim", "(Ljava/lang/String;IIIII)V", newNodeAnimParams, jNodeAnim))
	1076	{
	1077	return false;
	1078	}
	1079
	1080
	1081	/* add nodeanim to m_animations java.util.List */
	1082	jobject jNodeAnims = NULL;
	1083
	1084	if (!getField(env, jAnimation, "m_nodeAnims", "Ljava/util/List;", jNodeAnims))
	1085	{
	1086	return false;
	1087	}
	1088
	1089	jvalue addParams[1];
	1090	addParams[0].l = jNodeAnim;
	1091	if (!call(env, jNodeAnims, "java/util/Collection", "add", "(Ljava/lang/Object;)Z", addParams))
	1092	{
	1093	return false;
	1094	}
	1095
	1096	/* copy keys */
	1097	if (!copyBuffer(env, jNodeAnim, "m_posKeys", cNodeAnim->mPositionKeys,
	1098	cNodeAnim->mNumPositionKeys * sizeof(aiVectorKey)))
	1099	{
	1100	return false;
	1101	}
	1102
	1103	if (!copyBuffer(env, jNodeAnim, "m_rotKeys", cNodeAnim->mRotationKeys,
	1104	cNodeAnim->mNumRotationKeys * sizeof(aiQuatKey)))
	1105	{
	1106	return false;
	1107	}
	1108
	1109	if (!copyBuffer(env, jNodeAnim, "m_scaleKeys", cNodeAnim->mScalingKeys,
	1110	cNodeAnim->mNumScalingKeys * sizeof(aiVectorKey)))
	1111	{
	1112	return false;
	1113	}
	1114	}
	1115	}
	1116
	1117	lprintf("converting animations finished\n");
	1118
	1119	return true;
	1120	}
	1121
	1122
	1123	static bool loadLights(JNIEnv env, const aiScene cScene, jobject& jScene)
	1124	{
	1125	lprintf("converting %d lights ...\n", cScene->mNumLights);
	1126
	1127	for (unsigned int l = 0; l < cScene->mNumLights; l++)
	1128	{
	1129	const aiLight *cLight = cScene->mLights[l];
	1130
	1131	lprintf("converting light %s ...\n", cLight->mName.C_Str());
	1132
	1133	/* wrap color nodes */
	1134	jvalue wrapColorParams[3];
	1135	wrapColorParams[0].f = cLight->mColorDiffuse.r;
	1136	wrapColorParams[1].f = cLight->mColorDiffuse.g;
	1137	wrapColorParams[2].f = cLight->mColorDiffuse.b;
	1138	jobject jDiffuse;
	1139	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapColor3", "(FFF)Ljava/lang/Object;", wrapColorParams, jDiffuse))
	1140	{
	1141	return false;
	1142	}
	1143
	1144	wrapColorParams[0].f = cLight->mColorSpecular.r;
	1145	wrapColorParams[1].f = cLight->mColorSpecular.g;
	1146	wrapColorParams[2].f = cLight->mColorSpecular.b;
	1147	jobject jSpecular;
	1148	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapColor3", "(FFF)Ljava/lang/Object;", wrapColorParams, jSpecular))
	1149	{
	1150	return false;
	1151	}
	1152
	1153	wrapColorParams[0].f = cLight->mColorAmbient.r;
	1154	wrapColorParams[1].f = cLight->mColorAmbient.g;
	1155	wrapColorParams[2].f = cLight->mColorAmbient.b;
	1156	jobject jAmbient;
	1157	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapColor3", "(FFF)Ljava/lang/Object;", wrapColorParams, jAmbient))
	1158	{
	1159	return false;
	1160	}
	1161
	1162
	1163	/* wrap vec3 nodes */
	1164	jvalue wrapVec3Params[3];
	1165	wrapVec3Params[0].f = cLight->mPosition.x;
	1166	wrapVec3Params[1].f = cLight->mPosition.y;
	1167	wrapVec3Params[2].f = cLight->mPosition.z;
	1168	jobject jPosition;
	1169	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapVec3", "(FFF)Ljava/lang/Object;", wrapVec3Params, jPosition))
	1170	{
	1171	return false;
	1172	}
	1173
	1174	wrapVec3Params[0].f = cLight->mPosition.x;
	1175	wrapVec3Params[1].f = cLight->mPosition.y;
	1176	wrapVec3Params[2].f = cLight->mPosition.z;
	1177	jobject jDirection;
	1178	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapVec3", "(FFF)Ljava/lang/Object;", wrapVec3Params, jDirection))
	1179	{
	1180	return false;
	1181	}
	1182
	1183
	1184	jobject jLight;
	1185
	1186	jvalue params[12];
	1187	params[0].l = env->NewStringUTF(cLight->mName.C_Str());;
	1188	params[1].i = cLight->mType;
	1189	params[2].l = jPosition;
	1190	params[3].l = jDirection;
	1191	params[4].f = cLight->mAttenuationConstant;
	1192	params[5].f = cLight->mAttenuationLinear;
	1193	params[6].f = cLight->mAttenuationQuadratic;
	1194	params[7].l = jDiffuse;
	1195	params[8].l = jSpecular;
	1196	params[9].l = jAmbient;
	1197	params[10].f = cLight->mAngleInnerCone;
	1198	params[11].f = cLight->mAngleOuterCone;
	1199
	1200	if (!createInstance(env, "jassimp/AiLight", "(Ljava/lang/String;ILjava/lang/Object;Ljava/lang/Object;FFFLjava/lang/Object;Ljava/lang/Object;Ljava/lang/Object;FF)V",
	1201	params, jLight))
	1202	{
	1203	return false;
	1204	}
	1205
	1206	/* add light to m_lights java.util.List */
	1207	jobject jLights = NULL;
	1208
	1209	if (!getField(env, jScene, "m_lights", "Ljava/util/List;", jLights))
	1210	{
	1211	return false;
	1212	}
	1213
	1214	jvalue addParams[1];
	1215	addParams[0].l = jLight;
	1216	if (!call(env, jLights, "java/util/Collection", "add", "(Ljava/lang/Object;)Z", addParams))
	1217	{
	1218	return false;
	1219	}
	1220	}
	1221
	1222	lprintf("converting lights finished ...\n");
	1223
	1224	return true;
	1225	}
	1226
	1227
	1228	static bool loadCameras(JNIEnv env, const aiScene cScene, jobject& jScene)
	1229	{
	1230	lprintf("converting %d cameras ...\n", cScene->mNumCameras);
	1231
	1232	for (unsigned int c = 0; c < cScene->mNumCameras; c++)
	1233	{
	1234	const aiCamera *cCamera = cScene->mCameras[c];
	1235
	1236	lprintf("converting camera %s ...\n", cCamera->mName.C_Str());
	1237
	1238	/* wrap color nodes */
	1239	jvalue wrapPositionParams[3];
	1240	wrapPositionParams[0].f = cCamera->mPosition.x;
	1241	wrapPositionParams[1].f = cCamera->mPosition.y;
	1242	wrapPositionParams[2].f = cCamera->mPosition.z;
	1243	jobject jPosition;
	1244	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapVec3", "(FFF)Ljava/lang/Object;", wrapPositionParams, jPosition))
	1245	{
	1246	return false;
	1247	}
	1248
	1249	wrapPositionParams[0].f = cCamera->mUp.x;
	1250	wrapPositionParams[1].f = cCamera->mUp.y;
	1251	wrapPositionParams[2].f = cCamera->mUp.z;
	1252	jobject jUp;
	1253	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapVec3", "(FFF)Ljava/lang/Object;", wrapPositionParams, jUp))
	1254	{
	1255	return false;
	1256	}
	1257
	1258	wrapPositionParams[0].f = cCamera->mLookAt.x;
	1259	wrapPositionParams[1].f = cCamera->mLookAt.y;
	1260	wrapPositionParams[2].f = cCamera->mLookAt.z;
	1261	jobject jLookAt;
	1262	if (!callStaticObject(env, "Ljassimp/Jassimp;", "wrapVec3", "(FFF)Ljava/lang/Object;", wrapPositionParams, jLookAt))
	1263	{
	1264	return false;
	1265	}
	1266
	1267
	1268	jobject jCamera;
	1269
	1270	jvalue params[8];
	1271	params[0].l = env->NewStringUTF(cCamera->mName.C_Str());
	1272	params[1].l = jPosition;
	1273	params[2].l = jUp;
	1274	params[3].l = jLookAt;
	1275	params[4].f = cCamera->mHorizontalFOV;
	1276	params[5].f = cCamera->mClipPlaneNear;
	1277	params[6].f = cCamera->mClipPlaneFar;
	1278	params[7].f = cCamera->mAspect;
	1279
	1280	if (!createInstance(env, "jassimp/AiCamera", "(Ljava/lang/String;Ljava/lang/Object;Ljava/lang/Object;Ljava/lang/Object;FFFF)V",
	1281	params, jCamera))
	1282	{
	1283	return false;
	1284	}
	1285
	1286	/* add camera to m_cameras java.util.List */
	1287	jobject jCameras = NULL;
	1288
	1289	if (!getField(env, jScene, "m_cameras", "Ljava/util/List;", jCameras))
	1290	{
	1291	return false;
	1292	}
	1293
	1294	jvalue addParams[1];
	1295	addParams[0].l = jCamera;
	1296	if (!call(env, jCameras, "java/util/Collection", "add", "(Ljava/lang/Object;)Z", addParams))
	1297	{
	1298	return false;
	1299	}
	1300	}
	1301
	1302	lprintf("converting cameras finished\n");
	1303
	1304	return true;
	1305	}
	1306
	1307
	1308	JNIEXPORT jstring JNICALL Java_jassimp_Jassimp_getErrorString
	1309	(JNIEnv *env, jclass jClazz)
	1310	{
	1311	const char *err = aiGetErrorString();
	1312
	1313	if (NULL == err)
	1314	{
	1315	return env->NewStringUTF("");
	1316	}
	1317
	1318	return env->NewStringUTF(err);
	1319	}
	1320
	1321
	1322	JNIEXPORT jobject JNICALL Java_jassimp_Jassimp_aiImportFile
	1323	(JNIEnv *env, jclass jClazz, jstring jFilename, jlong postProcess)
	1324	{
	1325	jobject jScene = NULL;
	1326
	1327	/* convert params */
	1328	const char* cFilename = env->GetStringUTFChars(jFilename, NULL);
	1329
	1330
	1331	lprintf("opening file: %s\n", cFilename);
	1332
	1333	/* do import */
	1334	const aiScene *cScene = aiImportFile(cFilename, (unsigned int) postProcess);
	1335
	1336	if (!cScene)
	1337	{
	1338	lprintf("import file returned null\n");
	1339	goto error;
	1340	}
	1341
	1342	if (!createInstance(env, "jassimp/AiScene", jScene))
	1343	{
	1344	goto error;
	1345	}
	1346
	1347	if (!loadMeshes(env, cScene, jScene))
	1348	{
	1349	goto error;
	1350	}
	1351
	1352	if (!loadMaterials(env, cScene, jScene))
	1353	{
	1354	goto error;
	1355	}
	1356
	1357	if (!loadAnimations(env, cScene, jScene))
	1358	{
	1359	goto error;
	1360	}
	1361
	1362	if (!loadLights(env, cScene, jScene))
	1363	{
	1364	goto error;
	1365	}
	1366
	1367	if (!loadCameras(env, cScene, jScene))
	1368	{
	1369	goto error;
	1370	}
	1371
	1372	if (!loadSceneGraph(env, cScene, jScene))
	1373	{
	1374	goto error;
	1375	}
	1376
	1377	/* jump over error handling section */
	1378	goto end;
	1379
	1380	error:
	1381	jclass exception = env->FindClass("java/io/IOException");
	1382
	1383	if (NULL == exception)
	1384	{
	1385	/* thats really a problem because we cannot throw in this case */
	1386	env->FatalError("could not throw java.io.IOException");
	1387	}
	1388
	1389	env->ThrowNew(exception, aiGetErrorString());
	1390
	1391	lprintf("problem detected\n");
	1392
	1393	end:
	1394	/*
	1395	* NOTE: this releases all memory used in the native domain.
	1396	* Ensure all data has been passed to java before!
	1397	*/
	1398	aiReleaseImport(cScene);
	1399
	1400
	1401	/* free params */
	1402	env->ReleaseStringUTFChars(jFilename, cFilename);
	1403
	1404	lprintf("return from native\n");
	1405
	1406	return jScene;
	1407	}⏎

+31

-0

port/jassimp/jassimp-native/src/jassimp.h less more

	0	/* DO NOT EDIT THIS FILE - it is machine generated */
	1	#include <jni.h>
	2	/* Header for class jassimp_Jassimp */
	3
	4	#ifndef _Included_jassimp_Jassimp
	5	#define _Included_jassimp_Jassimp
	6	#ifdef __cplusplus
	7	extern "C" {
	8	#endif
	9	/* Inaccessible static: BUILTIN */
	10	/* Inaccessible static: s_wrapperProvider */
	11	/*
	12	* Class: jassimp_Jassimp
	13	* Method: getErrorString
	14	* Signature: ()Ljava/lang/String;
	15	*/
	16	JNIEXPORT jstring JNICALL Java_jassimp_Jassimp_getErrorString
	17	(JNIEnv *, jclass);
	18
	19	/*
	20	* Class: jassimp_Jassimp
	21	* Method: aiImportFile
	22	* Signature: (Ljava/lang/String;J)Ljassimp/AiScene;
	23	*/
	24	JNIEXPORT jobject JNICALL Java_jassimp_Jassimp_aiImportFile
	25	(JNIEnv *, jclass, jstring, jlong);
	26
	27	#ifdef __cplusplus
	28	}
	29	#endif
	30	#endif

-13

~~port/unmaintained/dAssimp/README~~ less more

0		D bindings for the Assimp library (http://assimp.sf.net).
1		---
2
3		These bindings provide access to Assimp's C API. They were directly created
4		from the C header files.
5
6		You should be able to create sufficient DDoc documentation for the bindings
7		using your favourite build tool (such as Rebuild). Please refer to the main
8		(Doxygen-generated) documentation for general topics.
9
10		Please note that the bindings have only been tested on 32 bit systems, they have
11		yet to be adapted for the different size of the integer types in 64 bit builds
12		of Assimp.

-240

~~port/unmaintained/dAssimp/assimp/animation.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* The data structures which are used to store the imported animation data.
43		*/
44		module assimp.animation;
45
46		import assimp.math;
47		import assimp.types;
48
49		extern ( C ) {
50		/**
51		* A time-value pair specifying a certain 3D vector for the given time.
52		*/
53		struct aiVectorKey {
54		/**
55		* The time of this key.
56		*/
57		double mTime;
58
59		/**
60		* The value of this key.
61		*/
62		aiVector3D mValue;
63		}
64
65		/**
66		* A time-value pair specifying a rotation for the given time. For joint
67		* animations, the rotation is usually expressed using a quaternion.
68		*/
69		struct aiQuatKey {
70		/**
71		* The time of this key.
72		*/
73		double mTime;
74
75		/**
76		* The value of this key.
77		*/
78		aiQuaternion mValue;
79		}
80
81		/**
82		* Defines how an animation channel behaves outside the defined time
83		* range. This corresponds to <code>aiNodeAnim.mPreState</code> and
84		* <code>aiNodeAnim.mPostState</code>.
85		*/
86		enum aiAnimBehaviour : uint {
87		/**
88		* The value from the default node transformation is used.
89		*/
90		DEFAULT = 0x0,
91
92		/**
93		* The nearest key value is used without interpolation.
94		*/
95		CONSTANT = 0x1,
96
97		/**
98		* The value of the nearest two keys is linearly extrapolated for the
99		* current time value.
100		*/
101		LINEAR = 0x2,
102
103		/**
104		* The animation is repeated.
105		*
106		* If the animation key go from n to m and the current time is t, use the
107		* value at (t-n) % (\|m-n\|).
108		*/
109		REPEAT = 0x3
110		}
111
112		/**
113		* Describes the animation of a single node.
114		*
115		* The name specifies the bone/node which is affected by this animation
116		* channel. The keyframes are given in three separate series of values, one
117		* each for position, rotation and scaling. The transformation matrix
118		* computed from these values replaces the node's original transformation
119		* matrix at a specific time. This means all keys are absolute and not
120		* relative to the bone default pose.
121		*
122		* The order in which the transformations are applied is –
123		* as usual – scaling, rotation, translation.
124		*
125		* Note: All keys are returned in their correct, chronological order.
126		* Duplicate keys don't pass the validation step. Most likely there will
127		* be no negative time values, but they are not forbidden (so
128		* implementations need to cope with them!).
129		*/
130		struct aiNodeAnim {
131		/**
132		* The name of the node affected by this animation. The node must exist
133		* and it must be unique.
134		*/
135		aiString mNodeName;
136
137		/**
138		* The number of position keys.
139		*/
140		uint mNumPositionKeys;
141
142		/**
143		* The position keys of this animation channel. Positions are specified
144		* as 3D vectors. The array is <code>mNumPositionKeys</code> in size.
145		*
146		* If there are position keys, there will also be at least one scaling
147		* and one rotation key.
148		*/
149		aiVectorKey* mPositionKeys;
150
151		/**
152		* The number of rotation keys.
153		*/
154		uint mNumRotationKeys;
155
156		/**
157		* The rotation keys of this animation channel. Rotations are given as
158		* quaternions. The array is <code>mNumRotationKeys</code> in size.
159		*
160		* If there are rotation keys, there will also be at least one scaling
161		* and one position key.
162		*/
163		aiQuatKey* mRotationKeys;
164
165
166		/**
167		* The number of scaling keys.
168		*/
169		uint mNumScalingKeys;
170
171		/**
172		* The scaling keys of this animation channel. Scalings are specified as
173		* 3D vectors. The array is <code>mNumScalingKeys</code> in size.
174		*
175		* If there are scaling keys, there will also be at least one position
176		* and one rotation key.
177		*/
178		aiVectorKey* mScalingKeys;
179
180
181		/**
182		* Defines how the animation behaves before the first key is encountered.
183		*
184		* The default value is <code>aiAnimBehaviour.DEFAULT</code> (the original
185		* transformation matrix of the affected node is used).
186		*/
187		aiAnimBehaviour mPreState;
188
189		/**
190		* Defines how the animation behaves after the last key was processed.
191		*
192		* The default value is <code>aiAnimBehaviour.DEFAULT</code> (the original
193		* transformation matrix of the affected node is used).
194		*/
195		aiAnimBehaviour mPostState;
196		}
197
198		/**
199		* An animation consists of keyframe data for a number of nodes.
200		*
201		* For each node affected by the animation, a separate series of data is
202		* given.
203		*/
204		struct aiAnimation {
205		/**
206		* The name of the animation.
207		*
208		* If the modeling package this data was
209		* exported from does support only a single animation channel, this
210		* name is usually empty (length is zero).
211		*/
212		aiString mName;
213
214		/**
215		* Duration of the animation in ticks.
216		*/
217		double mDuration;
218
219		/**
220		* Ticks per second. 0 if not specified in the imported file.
221		*/
222		double mTicksPerSecond;
223
224		/**
225		* The number of bone animation channels.
226		*
227		* Each channel affects a single node.
228		*/
229		uint mNumChannels;
230
231		/**
232		* The node animation channels. The array is <code>mNumChannels</code>
233		* in size.
234		*
235		* Each channel affects a single node.
236		*/
237		aiNodeAnim** mChannels;
238		}
239		}⏎

-686

~~port/unmaintained/dAssimp/assimp/api.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* The C-style interface to the Open Asset import library.
43		*
44		* All functions of the C API have been collected in this module as function
45		* pointers, which are set by the dynamic library loader
46		* (<code>assimp.loader</code>).
47		*/
48		module assimp.api;
49
50		import assimp.fileIO;
51		import assimp.material;
52		import assimp.math;
53		import assimp.scene;
54		import assimp.types;
55
56		extern ( C ) {
57		/**
58		* Reads the given file and returns its content.
59		*
60		* If the call succeeds, the imported data is returned in an <code>aiScene</code>
61		* structure. The data is intended to be read-only, it stays property of the
62		* Assimp library and will be stable until <code>aiReleaseImport()</code> is
63		* called. After you're done with it, call <code>aiReleaseImport()</code> to
64		* free the resources associated with this file.
65		*
66		* If an error is encountered, null is returned instead. Call
67		* <code>aiGetErrorString()</code> to retrieve a human-readable error
68		* description.
69		*
70		* Params:
71		* pFile = Path and filename of the file to be imported,
72		* expected to be a null-terminated C-string. null is not a valid value.
73		* pFlags = Optional post processing steps to be executed after a
74		* successful import. Provide a bitwise combination of the
75		* <code>aiPostProcessSteps</code> flags. If you wish to inspect the
76		* imported scene first in order to fine-tune your post-processing
77		* setup, consider to use <code>aiApplyPostProcessing()</code>.
78		*
79		* Returns:
80		* A pointer to the imported data, null if the import failed.
81		*/
82		aiScene* function( char* pFile, uint pFile ) aiImportFile;
83
84		/**
85		* Reads the given file using user-defined I/O functions and returns its
86		* content.
87		*
88		* If the call succeeds, the imported data is returned in an <code>aiScene</code>
89		* structure. The data is intended to be read-only, it stays property of the
90		* Assimp library and will be stable until <code>aiReleaseImport()</code> is
91		* called. After you're done with it, call <code>aiReleaseImport()</code> to
92		* free the resources associated with this file.
93		*
94		* If an error is encountered, null is returned instead. Call
95		* <code>aiGetErrorString()</code> to retrieve a human-readable error
96		* description.
97		*
98		* Params:
99		* pFile = Path and filename of the file to be imported,
100		* expected to be a null-terminated C-string. null is not a valid value.
101		* pFlags = Optional post processing steps to be executed after a
102		* successful import. Provide a bitwise combination of the
103		* <code>aiPostProcessSteps</code> flags. If you wish to inspect the
104		* imported scene first in order to fine-tune your post-processing
105		* setup, consider to use <code>aiApplyPostProcessing()</code>.
106		* pFS = An aiFileIO which will be used to open the model file itself
107		* and any other files the loader needs to open.
108		*
109		* Returns:
110		* A pointer to the imported data, null if the import failed.
111		*/
112		aiScene* function( char* pFile, uint pFlags, aiFileIO* pFS ) aiImportFileEx;
113
114		/**
115		* Reads the scene from the given memory buffer.
116		*
117		* Reads the given file using user-defined I/O functions and returns its
118		* content.
119		*
120		* If the call succeeds, the imported data is returned in an <code>aiScene</code>
121		* structure. The data is intended to be read-only, it stays property of the
122		* Assimp library and will be stable until <code>aiReleaseImport()</code> is
123		* called. After you're done with it, call <code>aiReleaseImport()</code> to
124		* free the resources associated with this file.
125		*
126		* If an error is encountered, null is returned instead. Call
127		* <code>aiGetErrorString()</code> to retrieve a human-readable error
128		* description.
129		*
130		* Params:
131		* pBuffer = Pointer to the scene data.
132		* pLength = Size of pBuffer in bytes.
133		* pFlags = Optional post processing steps to be executed after a
134		* successful import. Provide a bitwise combination of the
135		* <code>aiPostProcessSteps</code> flags. If you wish to inspect the
136		* imported scene first in order to fine-tune your post-processing
137		* setup, consider to use <code>aiApplyPostProcessing()</code>.
138		* pHint = An additional hint to the library. If this is a non empty
139		* string, the library looks for a loader to support the file
140		* extension specified and passes the file to the first matching
141		* loader. If this loader is unable to complete the request, the
142		* library continues and tries to determine the file format on its
143		* own, a task that may or may not be successful.
144		*
145		* Returns:
146		* A pointer to the imported data, null if the import failed.
147		*
148		* Note:
149		* This is a straightforward way to decode models from memory buffers,
150		* but it doesn't handle model formats spreading their data across
151		* multiple files or even directories. Examples include OBJ or MD3, which
152		* outsource parts of their material stuff into external scripts. If you
153		* need the full functionality, provide a custom IOSystem to make Assimp
154		* find these files.
155		*/
156		aiScene* function(
157		char* pBuffer,
158		uint pLength,
159		uint pFlags,
160		char* pHint
161		) aiImportFileFromMemory;
162
163		/**
164		* Apply post-processing to an already-imported scene.
165		*
166		* This is strictly equivalent to calling <code>aiImportFile()</code> or
167		* <code>aiImportFileEx()</code> with the same flags. However, you can use
168		* this separate function to inspect the imported scene first to fine-tune
169		* your post-processing setup.
170		*
171		* Params:
172		* pScene = Scene to work on.
173		* pFlags = Provide a bitwise combination of the
174		* <code>aiPostProcessSteps</code> flags.
175		*
176		* Returns:
177		* A pointer to the post-processed data. Post processing is done in-place,
178		* meaning this is still the same <code>aiScene</code> which you passed
179		* for pScene. However, if post-processing failed, the scene could now be
180		* null. That's quite a rare case, post processing steps are not really
181		* designed to fail. To be exact, <code>aiProcess.ValidateDS</code> is
182		* currently the only post processing step which can actually cause the
183		* scene to be reset to null.
184		*/
185		aiScene* function( aiScene* pScene, uint pFlags ) aiApplyPostProcessing;
186
187		/**
188		* Get one of the predefined log streams. This is the quick'n'easy solution
189		* to access Assimp's log system. Attaching a log stream can slightly reduce
190		* Assimp's overall import performance.
191		*
192		* Examples:
193		* ---
194		* aiLogStream stream = aiGetPredefinedLogStream(
195		* aiDefaultLogStream.FILE, "assimp.log.txt" );
196		* if ( stream.callback !is null ) {
197		* aiAttachLogStream( &stream );
198		* }
199		* ---
200		*
201		* Params:
202		* pStreams = The log stream destination.
203		* file = Solely for the <code>aiDefaultLogStream.FILE</code> flag:
204		* specifies the file to write to. Pass null for all other flags.
205		*
206		* Returns:
207		* The log stream, null if something went wrong.
208		*/
209		aiLogStream function( aiDefaultLogStream pStreams, char* file ) aiGetPredefinedLogStream;
210
211		/**
212		* Attach a custom log stream to the libraries' logging system.
213		*
214		* Attaching a log stream can slightly reduce Assimp's overall import
215		* performance. Multiple log-streams can be attached.
216		*
217		* Params:
218		* stream = Describes the new log stream.
219		*
220		* Note: To ensure proper destruction of the logging system, you need to
221		* manually call <code>aiDetachLogStream()</code> on every single log
222		* stream you attach. Alternatively, <code>aiDetachAllLogStreams()</code>
223		* is provided.
224		*/
225		void function( aiLogStream* stream ) aiAttachLogStream;
226
227		/**
228		* Enable verbose logging.
229		*
230		* Verbose logging includes debug-related stuff and detailed import
231		* statistics. This can have severe impact on import performance and memory
232		* consumption. However, it might be useful to find out why a file is not
233		* read correctly.
234		*
235		* Param:
236		* d = Whether verbose logging should be enabled.
237		*/
238		void function( aiBool d ) aiEnableVerboseLogging;
239
240		/**
241		* Detach a custom log stream from the libraries' logging system.
242		*
243		* This is the counterpart of #aiAttachPredefinedLogStream. If you attached a stream,
244		* don't forget to detach it again.
245		*
246		* Params:
247		* stream = The log stream to be detached.
248		*
249		* Returns:
250		* <code>aiReturn.SUCCESS</code> if the log stream has been detached
251		* successfully.
252		*
253		* See: <code>aiDetachAllLogStreams</code>
254		*/
255		aiReturn function( aiLogStream* stream ) aiDetachLogStream;
256
257		/**
258		* Detach all active log streams from the libraries' logging system.
259		*
260		* This ensures that the logging system is terminated properly and all
261		* resources allocated by it are actually freed. If you attached a stream,
262		* don't forget to detach it again.
263		*
264		* See: <code>aiAttachLogStream</code>, <code>aiDetachLogStream</code>
265		*/
266		void function() aiDetachAllLogStreams;
267
268		/**
269		* Releases all resources associated with the given import process.
270		*
271		* Call this function after you're done with the imported data.
272		*
273		* Params:
274		* pScene = The imported data to release. null is a valid value.
275		*/
276		void function( aiScene* pScene ) aiReleaseImport;
277
278		/**
279		* Returns the error text of the last failed import process.
280		*
281		* Returns:
282		* A textual description of the error that occurred at the last importing
283		* process. null if there was no error. There can't be an error if you
284		* got a non-null <code>aiScene</code> from
285		* <code>aiImportFile()/aiImportFileEx()/aiApplyPostProcessing()</code>.
286		*/
287		char* function() aiGetErrorString;
288
289		/**
290		* Returns whether a given file extension is supported by this Assimp build.
291		*
292		* Params:
293		* szExtension = Extension for which to query support. Must include a
294		* leading dot '.'. Example: ".3ds", ".md3"
295		*
296		* Returns:
297		* <code>TRUE</code> if the file extension is supported.
298		*/
299		aiBool function( char* szExtension ) aiIsExtensionSupported;
300
301		/**
302		* Gets a list of all file extensions supported by ASSIMP.
303		*
304		* Format of the list: ".3ds;.obj;*.dae".
305		*
306		* If a file extension is contained in the list this does, of course, not
307		* mean that Assimp is able to load all files with this extension.
308		*
309		* Params:
310		* szOut = String to receive the extension list. null is not a valid
311		* parameter.
312		*/
313		void function( aiString* szOut ) aiGetExtensionList;
314
315		/**
316		* Gets the storage required by an imported asset
317		*
318		* Params:
319		* pIn = Asset to query storage size for.
320		* info = Data structure to be filled.
321		*/
322		void function( aiScene* pIn, aiMemoryInfo* info ) aiGetMemoryRequirements;
323
324		/**
325		* Sets an integer property.
326		*
327		* Properties are always shared by all imports. It is not possible to
328		* specify them per import.
329		*
330		* Params:
331		* szName = Name of the configuration property to be set. All supported
332		* public properties are defined in the <code>config</code> module.
333		* value = New value for the property.
334		*/
335		void function( char* szName, int value ) aiSetImportPropertyInteger;
336
337		/**
338		* Sets a floating-point property.
339		*
340		* Properties are always shared by all imports. It is not possible to
341		* specify them per import.
342		*
343		* Params:
344		* szName = Name of the configuration property to be set. All supported
345		* public properties are defined in the <code>config</code> module.
346		* value = New value for the property.
347		*/
348		void function( char* szName, float value ) aiSetImportPropertyFloat;
349
350		/**
351		* Sets a string property.
352		*
353		* Properties are always shared by all imports. It is not possible to
354		* specify them per import.
355		*
356		* Params:
357		* szName = Name of the configuration property to be set. All supported
358		* public properties are defined in the <code>config</code> module.
359		* st = New value for the property.
360		*/
361		void function( char* szName, aiString* st ) aiSetImportPropertyString;
362
363
364		/*
365		* Mathematical helper functions.
366		*/
367
368		/**
369		* Constructs a quaternion from a 3x3 rotation matrix.
370		*
371		* Params:
372		* quat = Receives the output quaternion.
373		* mat = Matrix to 'quaternionize'.
374		*/
375		void function( aiQuaternion* quat, aiMatrix3x3* mat ) aiCreateQuaternionFromMatrix;
376
377		/**
378		* Decomposes a transformation matrix into its rotational, translational and
379		* scaling components.
380		*
381		* Params:
382		* mat = Matrix to decompose.
383		* scaling = Receives the scaling component.
384		* rotation = Receives the rotational component.
385		* position = Receives the translational component.
386		*/
387		void function(
388		aiMatrix4x4* mat,
389		aiVector3D* scaling,
390		aiQuaternion* rotation,
391		aiVector3D* position
392		) aiDecomposeMatrix;
393
394		/**
395		* Transposes a 4x4 matrix (in-place).
396		*
397		* Params:
398		* mat = The matrix to be transposed.
399		*/
400		void function( aiMatrix4x4* mat ) aiTransposeMatrix4;
401
402		/**
403		* Transposes a 3x3 matrix (in-place).
404		*
405		* Params:
406		* mat = The matrix to be transposed.
407		*/
408		void function( aiMatrix3x3* mat ) aiTransposeMatrix3;
409
410		/**
411		* Transforms a vector by a 3x3 matrix (in-place).
412		*
413		* Params:
414		* vec = Vector to be transformed.
415		* mat = Matrix to transform the vector with.
416		*/
417		void function( aiVector3D* vec, aiMatrix3x3* mat ) aiTransformVecByMatrix3;
418
419		/**
420		* Transforms a vector by a 4x4 matrix (in-place).
421		*
422		* Params:
423		* vec = Vector to be transformed.
424		* mat = Matrix to transform the vector with.
425		*/
426		void function( aiVector3D* vec, aiMatrix4x4* mat ) aiTransformVecByMatrix4;
427
428		/**
429		* Multiplies two 4x4 matrices.
430		*
431		* Params:
432		* dst = First factor, receives result.
433		* src = Matrix to be multiplied with 'dst'.
434		*/
435		void function( aiMatrix4x4* dst, aiMatrix4x4* src ) aiMultiplyMatrix4;
436
437		/**
438		* Multiplies two 3x3 matrices.
439		*
440		* Params:
441		* dst = First factor, receives result.
442		* src = Matrix to be multiplied with 'dst'.
443		*/
444		void function( aiMatrix3x3* dst, aiMatrix3x3* src ) aiMultiplyMatrix3;
445
446		/**
447		* Constructs a 3x3 identity matrix.
448		*
449		* Params:
450		* mat = Matrix to receive its personal identity.
451		*/
452		void function( aiMatrix3x3* mat ) aiIdentityMatrix3;
453
454		/**
455		* Constructs a 4x4 identity matrix.
456		*
457		* Params:
458		* mat = Matrix to receive its personal identity.
459		*/
460		void function( aiMatrix4x4* mat ) aiIdentityMatrix4;
461
462
463		/*
464		* Material system functions.
465		*/
466
467		/**
468		* Retrieves a material property with a specific key from the material.
469		*
470		* Params:
471		* pMat = Pointer to the input material. May not be null.
472		* pKey = Key to search for. One of the <code>AI_MATKEY_XXX</code>
473		* constants.
474		* type = Specifies the <code>aiTextureType</code> of the texture to be
475		* retrieved, 0 for non-texture properties.
476		* index = Index of the texture to be retrieved,
477		* 0 for non-texture properties.
478		* pPropOut = Pointer to receive a pointer to a valid
479		* <code>aiMaterialProperty</code> structure or null if the key has
480		* not been found.
481		*/
482		aiReturn function(
483		aiMaterial* pMat,
484		char* pKey,
485		uint type,
486		uint index,
487		aiMaterialProperty** pPropOut
488		) aiGetMaterialProperty;
489
490		/**
491		* Retrieves a single float value or an array of float values from the
492		* material.
493		*
494		* Examples:
495		* ---
496		* const FLOATS_IN_UV_TRANSFORM = ( aiUVTransform.sizeof / float.sizeof );
497		* uint valuesRead = FLOATS_IN_UV_TRANSFORM;
498		* bool success =
499		* ( aiGetMaterialFloatArray( &material, AI_MATKEY_UVTRANSFORM,
500		* aiTextureType.DIFFUSE, 0, cast( float* ) &trafo, &valuesRead ) ==
501		* aiReturn.SUCCESS ) &&
502		* ( valuesRead == FLOATS_IN_UV_TRANSFORM );
503		* ---
504		*
505		* Params:
506		* pMat = Pointer to the input material. May not be null.
507		* pKey = Key to search for. One of the AI_MATKEY_XXX constants.
508		* type = Specifies the <code>aiTextureType</code> of the texture to be
509		* retrieved, 0 for non-texture properties.
510		* index = Index of the texture to be retrieved,
511		* 0 for non-texture properties.
512		* pOut = Pointer to a buffer to receive the result.
513		* pMax = Specifies the size of the given buffer in floats. Receives the
514		* number of values (not bytes!) read. null to read a scalar property.
515		*
516		* Returns:
517		* Specifies whether the key has been found. If not, the output arrays
518		* remains unmodified and pMax is set to 0.
519		*/
520		aiReturn function(
521		aiMaterial* pMat,
522		char* pKey,
523		uint type,
524		uint index,
525		float* pOut,
526		uint* pMax = null
527		) aiGetMaterialFloatArray;
528
529		/**
530		* Convenience alias for <code>aiGetMaterialFloatArray()</code>.
531		*/
532		alias aiGetMaterialFloatArray aiGetMaterialFloat;
533
534		/**
535		* Retrieves a single integer value or an array of integer values from the
536		* material.
537		*
538		* See: <code>aiGetMaterialFloatArray()</code>
539		*/
540		aiReturn function(
541		aiMaterial* pMat,
542		char* pKey,
543		uint type,
544		uint index,
545		int* pOut,
546		uint* pMax = null
547		) aiGetMaterialIntegerArray;
548
549		/**
550		* Convenience alias for <code>aiGetMaterialIntegerArray()</code>.
551		*/
552		alias aiGetMaterialIntegerArray aiGetMaterialInteger;
553
554		/**
555		* Retrieves a color value from the material.
556		*
557		* See: <code>aiGetMaterialFloatArray()</code>
558		*/
559		aiReturn function(
560		aiMaterial* pMat,
561		char* pKey,
562		uint type,
563		uint index,
564		aiColor4D* pOut
565		) aiGetMaterialColor;
566
567		/**
568		* Retrieves a string value from the material.
569		*
570		* See: <code>aiGetMaterialFloatArray()</code>
571		*/
572		aiReturn function(
573		aiMaterial* pMat,
574		char* pKey,
575		uint type,
576		uint index,
577		aiString* pOut
578		) aiGetMaterialString;
579
580		/**
581		* Get the number of textures for a particular texture type.
582		*
583		* Params:
584		* pMat = Pointer to the input material. May not be NULL
585		* type = Texture type to check for
586		*
587		* Returns:
588		* Number of textures for this type.
589		*/
590		uint function( aiMaterial* pMat, aiTextureType type ) aiGetMaterialTextureCount;
591
592		/**
593		* Helper function to get all values pertaining to a particular texture slot
594		* from a material structure.
595		*
596		* This function is provided just for convenience. You could also read the
597		* texture by parsing all of its properties manually. This function bundles
598		* all of them in a huge function monster.
599		*
600		* Params:
601		* mat = Pointer to the input material. May not be null.
602		* type = Specifies the texture stack (<code>aiTextureType</code>) to
603		* read from.
604		* index = Index of the texture. The function fails if the requested
605		* index is not available for this texture type.
606		* <code>aiGetMaterialTextureCount()</code> can be used to determine
607		* the number of textures in a particular texture stack.
608		* path = Receives the output path. null is not a valid value.
609		* mapping = Recieves the texture mapping mode to be used.
610		* Pass null if you are not interested in this information.
611		* uvindex = For UV-mapped textures: receives the index of the UV source
612		* channel. Unmodified otherwise. Pass null if you are not interested
613		* in this information.
614		* blend = Receives the blend factor for the texture.
615		* Pass null if you are not interested in this information.
616		* op = Receives the texture blend operation to be perform between this
617		* texture and the previous texture. Pass null if you are not
618		* interested in this information.
619		* mapmode = Receives the mapping modes to be used for the texture. Pass
620		* a pointer to an array of two aiTextureMapMode's (one for each axis,
621		* UV order) or null if you are not interested in this information.
622		*
623		* Returns:
624		* <code>aiReturn.SUCCESS</code> on success, otherwise something else.
625		*/
626		aiReturn function(
627		aiMaterial* mat,
628		aiTextureType type,
629		uint index,
630		aiString* path,
631		aiTextureMapping* mapping = null,
632		uint* uvindex = null,
633		float* blend = null,
634		aiTextureOp* op = null,
635		aiTextureMapMode* mapmode = null
636		) aiGetMaterialTexture;
637
638
639		/*
640		* Versioning functions.
641		*/
642
643		/**
644		* Returns a string with legal copyright and licensing information about
645		* Assimp.
646		*
647		* The string may include multiple lines.
648		*
649		* Returns:
650		* Pointer to static string.
651		*/
652		char* function() aiGetLegalString;
653
654		/**
655		* Returns the current minor version number of the Assimp library.
656		*
657		* Returns:
658		* Minor version of the Assimp library.
659		*/
660		uint function() aiGetVersionMinor;
661
662		/**
663		* Returns the current major version number of the Assimp library.
664		*
665		* Returns:
666		* Major version of the Assimp library.
667		*/
668		uint function() aiGetVersionMajor;
669
670		/**
671		* Returns the repository revision of the Assimp library.
672		*
673		* Returns:
674		* SVN Repository revision number of the Assimp library.
675		*/
676		uint function() aiGetVersionRevision;
677
678		/**
679		* Returns the flags Assimp was compiled with.
680		*
681		* Returns:
682		* Any bitwise combination of the ASSIMP_CFLAGS_xxx constants.
683		*/
684		uint function() aiGetCompileFlags;
685		}

-63

~~port/unmaintained/dAssimp/assimp/assimp.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Include-all module provided for convenience.
43		*/
44		module assimp.assimp;
45
46		public {
47		import assimp.animation;
48		import assimp.api;
49		import assimp.camera;
50		import assimp.config;
51		import assimp.fileIO;
52		import assimp.light;
53		import assimp.loader;
54		import assimp.material;
55		import assimp.math;
56		import assimp.mesh;
57		import assimp.postprocess;
58		import assimp.scene;
59		import assimp.texture;
60		import assimp.types;
61		import assimp.versionInfo;
62		}

-182

~~port/unmaintained/dAssimp/assimp/camera.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Contains the data structure which is used to store the imported information
43		* about the virtual cameras in the scene.
44		*/
45		module assimp.camera;
46
47		import assimp.math;
48		import assimp.types;
49
50		extern ( C ) {
51		/**
52		* Helper structure to describe a virtual camera.
53		*
54		* Cameras have a representation in the node graph and can be animated.
55		* An important aspect is that the camera itself is also part of the
56		* scenegraph. This means, any values such as the look-at vector are not
57		* absolute, they're <em>relative</em> to the coordinate system defined
58		* by the node which corresponds to the camera. This allows for camera
59		* animations. Static cameras parameters like the look-at or up vectors are
60		* usually specified directly in the class members, but beware, they could
61		* also be encoded in the node transformation. The following (pseudo)code
62		* sample shows how to do it.
63		*
64		* Examples:
65		* ---
66		* // Get the camera matrix for a camera at a specific time
67		* // if the node hierarchy for the camera does not contain
68		* // at least one animated node this is a static computation
69		* get-camera-matrix (node sceneRoot, camera cam) : matrix
70		* {
71		* node cnd = find-node-for-camera(cam)
72		* matrix cmt = identity()
73		*
74		* // as usual - get the absolute camera transformation for this frame
75		* for each node nd in hierarchy from sceneRoot to cnd
76		* matrix cur
77		* if (is-animated(nd))
78		* cur = eval-animation(nd)
79		* else cur = nd->mTransformation;
80		* cmt = mult-matrices( cmt, cur )
81		* end for
82		*
83		* // now multiply with the camera's own local transform
84		* cam = mult-matrices (cam, get-camera-matrix(cmt) )
85		* }
86		* ---
87		*
88		* Note: Some file formats (such as 3DS, ASE) export a "target point" – the
89		* point the camera is looking at (it can even be animated). Assimp
90		* writes the target point as a subnode of the camera's main node, called
91		* "<camName>.Target". However, this is just additional information; the
92		* transformation applied to the main camera node already makes the
93		* camera face the right direction.
94		*/
95		struct aiCamera {
96		/**
97		* The name of the camera.
98		*
99		* There must be a node in the scenegraph with the same name. This node
100		* specifies the position of the camera in the scene hierarchy and can
101		* be animated.
102		*/
103		aiString mName;
104
105
106		/**
107		* Position of the camera relative to the coordinate space defined by the
108		* corresponding node.
109		*
110		* The default value is 0\|0\|0.
111		*/
112		aiVector3D mPosition;
113
114		/**
115		* Up vector of the camera coordinate system relative to the
116		* coordinate space defined by the corresponding node.
117		*
118		* The right vector of the camera coordinate system is the cross
119		* product of the up and lookAt vectors.
120		*
121		* The default value is 0\|1\|0. The vector may be normalized, but it
122		* needn't.
123		*/
124		aiVector3D mUp;
125
126		/**
127		* Look-at vector of the camera coordinate system relative to the
128		* coordinate space defined by the corresponding node.
129		*
130		* This is the viewing direction of the user.
131		*
132		* The default value is 0\|0\|1. The vector may be normalized, but it
133		* needn't.
134		*/
135		aiVector3D mLookAt;
136
137
138		/**
139		* Half horizontal field of view angle, in radians.
140		*
141		* The field of view angle is the angle between the center line of the
142		* screen and the left or right border.
143		*
144		* The default value is PI/4.
145		*/
146		float mHorizontalFOV;
147
148		/**
149		* Distance of the near clipping plane from the camera.
150		*
151		* The value may not be 0.f (for arithmetic reasons to prevent
152		* a division through zero).
153		*
154		* The default value is 0.1f.
155		*/
156		float mClipPlaneNear;
157
158		/**
159		* Distance of the far clipping plane from the camera.
160		*
161		* The far clipping plane must, of course, be further away than the
162		* near clipping plane. The ratio between the near and the far plane
163		* should not be too large (between 1000-10000 should be ok) to avoid
164		* floating-point inaccuracies which could lead to z-fighting.
165		*
166		* The default value is 1000.f.
167		*/
168		float mClipPlaneFar;
169
170		/**
171		* Screen aspect ratio.
172		*
173		* This is the ration between the width and the height of the
174		* screen. Typical values are 4/3, 1/2 or 1/1. This value is
175		* 0 if the aspect ratio is not defined in the source file.
176		*
177		* 0 is also the default value.
178		*/
179		float mAspect;
180		}
181		}

-705

~~port/unmaintained/dAssimp/assimp/config.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Defines constants for configurable properties for the library.
43		*
44		* These are set via <code>aiSetImportPropertyInteger()</code>,
45		* <code>aiSetImportPropertyFloat()</code> and
46		* <code>aiSetImportPropertyString()</code>.
47		*/
48		module assimp.config;
49
50		extern ( C ) {
51		/*
52		* Library settings.
53		*
54		* General, global settings.
55		*/
56
57		/**
58		* Enables time measurements.
59		*
60		* If enabled, measures the time needed for each part of the loading
61		* process (i.e. IO time, importing, postprocessing, ..) and dumps these
62		* timings to the DefaultLogger. See the performance page in the main
63		* Assimp docs information on this topic.
64		*
65		* Property type: bool. Default value: false.
66		*/
67		const char* AI_CONFIG_GLOB_MEASURE_TIME = "GLOB_MEASURE_TIME";
68
69		version( none ) { // not implemented yet
70		/**
71		* Set Assimp's multithreading policy.
72		*
73		* This setting is ignored if Assimp was built without boost.thread support
74		* (<code>ASSIMP_BUILD_NO_THREADING</code>, which is implied by
75		* <code>ASSIMP_BUILD_BOOST_WORKAROUND</code>).
76		*
77		* Possible values are: -1 to let Assimp decide what to do, 0 to disable
78		* multithreading entirely and any number larger than 0 to force a specific
79		* number of threads. Assimp is always free to ignore this settings, which
80		* is merely a hint. Usually, the default value (-1) will be fine. However,
81		* if Assimp is used concurrently from multiple user threads, it might be
82		* useful to limit each Importer instance to a specific number of cores.
83		*
84		* For more information, see the threading page in the main Assimp docs.
85		*
86		* Property type: int, default value: -1.
87		*/
88		const char* AI_CONFIG_GLOB_MULTITHREADING = "GLOB_MULTITHREADING";
89		}
90
91
92		/*
93		* Post processing settings.
94		*
95		* Various options to fine-tune the behavior of a specific post processing step.
96		*/
97
98		/**
99		* Specifies the maximum angle that may be between two vertex tangents that
100		* their tangents and bitangents are smoothed.
101		*
102		* This applies to the <code>CalcTangentSpace</code> step. The angle is
103		* specified in degrees, so 180 corresponds to PI radians.
104		*
105		* The default value is 45, the maximum value is 175.
106		*
107		* Property type: float.
108		*/
109		const char* AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE = "PP_CT_MAX_SMOOTHING_ANGLE";
110
111		/**
112		* Specifies the maximum angle that may be between two face normals at the
113		* same vertex position that their are smoothed together. Sometimes referred
114		* to as 'crease angle'.
115		*
116		* This applies to the <code>GenSmoothNormals</code> step. The angle is
117		* specified in degrees, so 180 corresponds to PI radians.
118		*
119		* The default value is 175 degrees (all vertex normals are smoothed), the
120		* maximum value is 175, too.
121		*
122		* Property type: float.
123		*
124		* Warning:
125		* Setting this option may cause a severe loss of performance. The
126		* performance is unaffected if the <code>AI_CONFIG_FAVOUR_SPEED</code>
127		* flag is set but the output quality may be reduced.
128		*/
129		const char* AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE = "PP_GSN_MAX_SMOOTHING_ANGLE";
130
131		/**
132		* Sets the colormap (= palette) to be used to decode embedded textures in
133		* MDL (Quake or 3DGS) files.
134		*
135		* This must be a valid path to a file. The file is 768 (256*3) bytes large
136		* and contains RGB triplets for each of the 256 palette entries. The
137		* default value is colormap.lmp. If the file is not found, a default
138		* palette (from Quake 1) is used.
139		*
140		* Property type: string.
141		*/
142		const char* AI_CONFIG_IMPORT_MDL_COLORMAP = "IMPORT_MDL_COLORMAP";
143
144		/**
145		* Configures the <code>RemoveRedundantMaterials</code> step to keep
146		* materials matching a name in a given list.
147		*
148		* This is a list of 1 to n strings, ' ' serves as delimiter character.
149		* Identifiers containing whitespaces must be enclosed in <em>single</em>
150		* quotation marks. For example: <code>
151		* "keep-me and_me_to anotherMaterialToBeKept \'name with whitespace\'"</code>.
152		* Linefeeds, tabs or carriage returns are treated as whitespace.
153		*
154		* If a material matches on of these names, it will not be modified or
155		* removed by the postprocessing step nor will other materials be replaced
156		* by a reference to it.
157		*
158		* This option might be useful if you are using some magic material names
159		* to pass additional semantics through the content pipeline. This ensures
160		* they won't be optimized away, but a general optimization is still
161		* performed for materials not contained in the list.
162		*
163		* Default value: n/a
164		*
165		* Property type: string.
166		*
167		* Note: Material names are case sensitive.
168		*/
169		const char* AI_CONFIG_PP_RRM_EXCLUDE_LIST = "PP_RRM_EXCLUDE_LIST";
170
171		/**
172		* Configures the <code>PretransformVertices</code> step to keep the scene
173		* hierarchy. Meshes are moved to worldspace, but no optimization is
174		* performed (meshes with equal materials are not joined, the total number
175		* of meshes will not change).
176		*
177		* This option could be of use for you if the scene hierarchy contains
178		* important additional information which you intend to parse.
179		* For rendering, you can still render all meshes in the scene without
180		* any transformations.
181		*
182		* Default value: false.
183		*
184		* Property type: bool.
185		*/
186		const char* AI_CONFIG_PP_PTV_KEEP_HIERARCHY = "PP_PTV_KEEP_HIERARCHY";
187
188		/**
189		* Configures the <code>PretransformVertices</code> step to normalize all
190		* vertex components into the -1...1 range. That is, a bounding box for the
191		* whole scene is computed, the maximum component is taken and all meshes
192		* are scaled appropriately (uniformly of course!).
193		*
194		* This might be useful if you don't know the spatial dimension of the input
195		* data.
196		*/
197		const char* AI_CONFIG_PP_PTV_NORMALIZE = "PP_PTV_NORMALIZE";
198
199		/**
200		* Configures the <code>FindDegenerates</code> step to remove degenerated
201		* primitives from the import – immediately.
202		*
203		* The default behaviour converts degenerated triangles to lines and
204		* degenerated lines to points. See the documentation to the
205		* <code>FindDegenerates</code> step for a detailed example of the various
206		* ways to get rid of these lines and points if you don't want them.
207		*
208		* Default value: false.
209		*
210		* Property type: bool.
211		*/
212		const char* AI_CONFIG_PP_FD_REMOVE = "PP_FD_REMOVE";
213
214		/**
215		* Configures the <code>OptimizeGraph</code> step to preserve nodes matching
216		* a name in a given list.
217		*
218		* This is a list of 1 to n strings, ' ' serves as delimiter character.
219		* Identifiers containing whitespaces must be enclosed in <em>single</em>
220		* quotation marks. For example: <code>
221		* "keep-me and_me_to anotherMaterialToBeKept \'name with whitespace\'"</code>.
222		* Linefeeds, tabs or carriage returns are treated as whitespace.
223		*
224		* If a node matches on of these names, it will not be modified or
225		* removed by the postprocessing step.
226		*
227		* This option might be useful if you are using some magic node names
228		* to pass additional semantics through the content pipeline. This ensures
229		* they won't be optimized away, but a general optimization is still
230		* performed for nodes not contained in the list.
231		*
232		* Default value: n/a
233		*
234		* Property type: string.
235		*
236		* Note: Node names are case sensitive.
237		*/
238		const char* AI_CONFIG_PP_OG_EXCLUDE_LIST = "PP_OG_EXCLUDE_LIST";
239
240		/**
241		* Sets the maximum number of triangles in a mesh.
242		*
243		* This is used by the <code>SplitLargeMeshes</code> step to determine
244		* whether a mesh must be split or not.
245		*
246		* Default value: AI_SLM_DEFAULT_MAX_TRIANGLES.
247		*
248		* Property type: integer.
249		*/
250		const char* AI_CONFIG_PP_SLM_TRIANGLE_LIMIT = "PP_SLM_TRIANGLE_LIMIT";
251
252		/**
253		* The default value for the AI_CONFIG_PP_SLM_TRIANGLE_LIMIT setting.
254		*/
255		const AI_SLM_DEFAULT_MAX_TRIANGLES = 1000000;
256
257		/**
258		* Sets the maximum number of vertices in a mesh.
259		*
260		* This is used by the <code>SplitLargeMeshes</code> step to determine
261		* whether a mesh must be split or not.
262		*
263		* Default value: AI_SLM_DEFAULT_MAX_VERTICES
264		*
265		* Property type: integer.
266		*/
267		const char* AI_CONFIG_PP_SLM_VERTEX_LIMIT = "PP_SLM_VERTEX_LIMIT";
268
269		/**
270		* The default value for the AI_CONFIG_PP_SLM_VERTEX_LIMIT setting.
271		*/
272		const AI_SLM_DEFAULT_MAX_VERTICES = 1000000;
273
274		/**
275		* Sets the maximum number of bones affecting a single vertex.
276		*
277		* This is used by the <code>LimitBoneWeights</code> step.
278		*
279		* Default value: AI_LBW_MAX_WEIGHTS
280		*
281		* Property type: integer.
282		*/
283		const char* AI_CONFIG_PP_LBW_MAX_WEIGHTS = "PP_LBW_MAX_WEIGHTS";
284
285		/**
286		* The default value for the AI_CONFIG_PP_LBW_MAX_WEIGHTS setting.
287		*/
288		const AI_LMW_MAX_WEIGHTS = 0x4;
289
290		/**
291		* Sets the size of the post-transform vertex cache to optimize the
292		* vertices for. This configures the <code>ImproveCacheLocality</code> step.
293		*
294		* The size is given in vertices. Of course you can't know how the vertex
295		* format will exactly look like after the import returns, but you can still
296		* guess what your meshes will probably have.
297		*
298		* The default value results in slight performance improvements for most
299		* nVidia/AMD cards since 2002.
300		*
301		* Default value: PP_ICL_PTCACHE_SIZE
302		*
303		* Property type: integer.
304		*/
305		const char* AI_CONFIG_PP_ICL_PTCACHE_SIZE = "PP_ICL_PTCACHE_SIZE";
306
307		/**
308		* The default value for the AI_CONFIG_PP_ICL_PTCACHE_SIZE config option.
309		*/
310		const PP_ICL_PTCACHE_SIZE = 12;
311
312		/**
313		* Components of the <code>aiScene</code> and <code>aiMesh</code> data
314		* structures that can be excluded from the import by using the
315		* <code>RemoveComponent</code> step.
316		*
317		* See the documentation to <code>RemoveComponent</code> for more details.
318		*/
319		enum aiComponent : uint {
320		/**
321		* Normal vectors.
322		*/
323		NORMALS = 0x2,
324
325		/**
326		* Tangents and bitangents.
327		*/
328		TANGENTS_AND_BITANGENTS = 0x4,
329
330		/**
331		* <em>All</em> color sets.
332		*
333		* Use aiComponent_COLORSn( N ) to specify the N'th set.
334		*/
335		COLORS = 0x8,
336
337		/**
338		* <em>All</em> texture UV coordinate sets.
339		*
340		* Use aiComponent_TEXCOORDn( N ) to specify the N'th set.
341		*/
342		TEXCOORDS = 0x10,
343
344		/**
345		* Bone weights from all meshes.
346		*
347		* The corresponding scenegraph nodes are <em>not</em> removed. Use the
348		* <code>OptimizeGraph</code> step to do this.
349		*/
350		BONEWEIGHTS = 0x20,
351
352		/**
353		* Node animations (<code>aiScene.mAnimations</code>).
354		*
355		* The corresponding scenegraph nodes are <em>not</em> removed. Use the
356		* <code>OptimizeGraph</code> step to do this.
357		*/
358		ANIMATIONS = 0x40,
359
360		/**
361		* Embedded textures (<code>aiScene.mTextures</code>).
362		*/
363		TEXTURES = 0x80,
364
365		/**
366		* Light sources (<code>aiScene.mLights</code>).
367		*
368		* The corresponding scenegraph nodes are <em>not</em> removed. Use the
369		* <code>OptimizeGraph</code> step to do this.
370		*/
371		LIGHTS = 0x100,
372
373		/**
374		* Cameras (<code>aiScene.mCameras</code>).
375		*
376		* The corresponding scenegraph nodes are <em>not</em> removed. Use the
377		* <code>OptimizeGraph</code> step to do this.
378		*/
379		CAMERAS = 0x200,
380
381		/**
382		* Meshes (<code>aiScene.mMeshes</code>).
383		*/
384		MESHES = 0x400,
385
386		/** Materials.
387		*
388		* One default material will be generated, so
389		* <code>aiScene.mNumMaterials</code> will be 1.
390		*/
391		MATERIALS = 0x800
392		}
393
394		/**
395		* Specifies a certain color channel to remove.
396		*/
397		uint aiComponent_COLORSn( uint n ) { return 1u << ( n + 20u ); }
398
399		/**
400		* Specifies a certain UV coordinate channel to remove.
401		*/
402		uint aiComponent_TEXCOORDSn( uint n ) { return 1u << ( n + 25u ); }
403
404		/**
405		* Input parameter to the <code>RemoveComponent</code> step:
406		* Specifies the parts of the data structure to be removed.
407		*
408		* See the documentation to this step for further details.
409		*
410		* Default value: 0
411		*
412		* Property type: integer (bitwise combination of <code>aiComponent</code>
413		* flags).
414		*
415		* Note: If no valid mesh is remaining after the step has been executed, the
416		* import <em>fails</em>, because there is no data to work on anymore.
417		*/
418		const char* AI_CONFIG_PP_RVC_FLAGS = "PP_RVC_FLAGS";
419
420		/**
421		* Input parameter to the <code>SortByPType</code> step:
422		* Specifies which primitive types are removed by the step.
423		*
424		* This is a bitwise combination of the <code>aiPrimitiveType</code> flags.
425		* Specifying all of them is illegal, of course. A typical use would be to
426		* exclude all line and point meshes from the import.
427		*
428		* Default value: 0
429		*
430		* Property type: integer.
431		*/
432		const char* AI_CONFIG_PP_SBP_REMOVE = "PP_SBP_REMOVE";
433
434		/**
435		* Input parameter to the <code>FindInvalidData</code> step:
436		* Specifies the floating-point accuracy for animation values.
437		*
438		* The step checks for animation tracks where all frame values are
439		* absolutely equal and removes them. This tweakable controls the epsilon
440		* for floating-point comparisons – two keys are considered equal if the
441		* invariant abs(n0-n1) > epsilon holds true for all vector respectively
442		* quaternion components.
443		*
444		* Default value: 0 (exact comparison).
445		*
446		* Property type: float.
447		*/
448		const char* AI_CONFIG_PP_FID_ANIM_ACCURACY = "PP_FID_ANIM_ACCURACY";
449
450		/**
451		* The <code>TransformUVCoords</code> step evaluates UV scalings.
452		*/
453		const AI_UVTRAFO_SCALING = 0x1;
454
455		/**
456		* The <code>TransformUVCoords</code> step evaluates UV rotations.
457		*/
458		const AI_UVTRAFO_ROTATION = 0x2;
459
460		/**
461		* The <code>TransformUVCoords</code> step evaluates UV translation.
462		*/
463		const AI_UVTRAFO_TRANSLATION = 0x4;
464
465		/**
466		* The <code>TransformUVCoords</code> step evaluates all UV translations.
467		*/
468		const AI_UVTRAFO_ALL =
469		AI_UVTRAFO_SCALING
470		\| AI_UVTRAFO_ROTATION
471		\| AI_UVTRAFO_TRANSLATION;
472
473		/**
474		* Input parameter to the <code>TransformUVCoords</code> step: Specifies
475		* which UV transformations are evaluated.
476		*
477		* Default value: AI_UVTRAFO_ALL.
478		*
479		* Property type: integer (bitwise combination of the
480		* <code>AI_UVTRAFO_XXX<code> flag).
481		*/
482		const char* AI_CONFIG_PP_TUV_EVALUATE = "PP_TUV_EVALUATE";
483
484		/**
485		* A hint to assimp to favour speed against import quality.
486		*
487		* Enabling this option may result in faster loading, but it needn't.
488		* It represents just a hint to loaders and post-processing steps to use
489		* faster code paths, if possible.
490		*
491		* Default value: false.
492		*
493		* Property type: bool.
494		*/
495		const char* AI_CONFIG_FAVOUR_SPEED = "FAVOUR_SPEED";
496
497
498		/*
499		* Importer settings.
500		*
501		* Various stuff to fine-tune the behaviour of specific importer plugins.
502		*/
503
504		/**
505		* Set the vertex animation keyframe to be imported.
506		*
507		* Assimp does not support vertex keyframes (only bone animation is
508		* supported). The library reads only one frame of models with vertex
509		* animations.
510		*
511		* Default value: 0 (first frame).
512		*
513		* Property type: integer.
514		*
515		* Note: This option applies to all importers. However, it is also possible
516		* to override the global setting for a specific loader. You can use the
517		* AI_CONFIG_IMPORT_XXX_KEYFRAME options (where XXX is a placeholder for
518		* the file format for which you want to override the global setting).
519		*/
520		const char* AI_CONFIG_IMPORT_GLOBAL_KEYFRAME = "IMPORT_GLOBAL_KEYFRAME";
521
522		const char* AI_CONFIG_IMPORT_MD3_KEYFRAME = "IMPORT_MD3_KEYFRAME";
523		const char* AI_CONFIG_IMPORT_MD2_KEYFRAME = "IMPORT_MD2_KEYFRAME";
524		const char* AI_CONFIG_IMPORT_MDL_KEYFRAME = "IMPORT_MDL_KEYFRAME";
525		const char* AI_CONFIG_IMPORT_MDC_KEYFRAME = "IMPORT_MDC_KEYFRAME";
526		const char* AI_CONFIG_IMPORT_SMD_KEYFRAME = "IMPORT_SMD_KEYFRAME";
527		const char* AI_CONFIG_IMPORT_UNREAL_KEYFRAME = "IMPORT_UNREAL_KEYFRAME";
528
529
530		/**
531		* Configures the AC loader to collect all surfaces which have the
532		* "Backface cull" flag set in separate meshes.
533		*
534		* Default value: true.
535		*
536		* Property type: bool.
537		*/
538		const char* AI_CONFIG_IMPORT_AC_SEPARATE_BFCULL = "IMPORT_AC_SEPARATE_BFCULL";
539
540		/**
541		* Configures the UNREAL 3D loader to separate faces with different surface
542		* flags (e.g. two-sided vs. single-sided).
543		*
544		* Default value: true.
545		*
546		* Property type: bool.
547		*/
548		const char* AI_CONFIG_IMPORT_UNREAL_HANDLE_FLAGS = "UNREAL_HANDLE_FLAGS";
549
550		/**
551		* Configures the terragen import plugin to compute uv's for terrains, if
552		* not given. Furthermore, a default texture is assigned.
553		*
554		* UV coordinates for terrains are so simple to compute that you'll usually
555		* want to compute them on your own, if you need them. This option is intended
556		* for model viewers which want to offer an easy way to apply textures to
557		* terrains.
558		*
559		* Default value: false.
560		*
561		* Property type: bool.
562		*/
563		const char* AI_CONFIG_IMPORT_TER_MAKE_UVS = "IMPORT_TER_MAKE_UVS";
564
565		/**
566		* Configures the ASE loader to always reconstruct normal vectors basing on
567		* the smoothing groups loaded from the file.
568		*
569		* Many ASE files have invalid normals (they're not orthonormal).
570		*
571		* Default value: true.
572		*
573		* Property type: bool.
574		*/
575		const char* AI_CONFIG_IMPORT_ASE_RECONSTRUCT_NORMALS = "IMPORT_ASE_RECONSTRUCT_NORMALS";
576
577		/**
578		* Configures the M3D loader to detect and process multi-part Quake player
579		* models.
580		*
581		* These models usually consist of three files, <code>lower.md3</code>,
582		* <code>upper.md3</code> and <code>head.md3</code>. If this property is set
583		* to true, Assimp will try to load and combine all three files if one of
584		* them is loaded.
585		*
586		* Default value: true.
587		*
588		* Property type: bool.
589		*/
590		const char* AI_CONFIG_IMPORT_MD3_HANDLE_MULTIPART = "IMPORT_MD3_HANDLE_MULTIPART";
591
592		/**
593		* Tells the MD3 loader which skin files to load.
594		*
595		* When loading MD3 files, Assimp checks whether a file
596		* <code><md3_file_name>_<skin_name>.skin</code> is existing. These files
597		* are used by Quake 3 to be able to assign different skins (e.g. red and
598		* blue team) to models. 'default', 'red', 'blue' are typical skin names.
599		*
600		* Default value: "default".
601		*
602		* Property type: string.
603		*/
604		const char* AI_CONFIG_IMPORT_MD3_SKIN_NAME = "IMPORT_MD3_SKIN_NAME";
605
606		/**
607		* Specify the Quake 3 shader file to be used for a particular MD3 file.
608		* This can also be a search path.
609		*
610		* By default Assimp's behaviour is as follows: If a MD3 file
611		* <code>[any_path]/models/[any_q3_subdir]/[model_name]/[file_name].md3</code>
612		* is loaded, the library tries to locate the corresponding shader file in
613		* <code>[any_path]/scripts/[model_name].shader</code>. This property
614		* overrides this behaviour. It can either specify a full path to the shader
615		* to be loaded or alternatively the path (relative or absolute) to the
616		* directory where the shaders for all MD3s to be loaded reside. Assimp
617		* attempts to open <code>[dir]/[model_name].shader</code> first,
618		* <code>[dir]/[file_name].shader</code> is the fallback file. Note that
619		* <code>[dir]</code> should have a terminal (back)slash.
620		*
621		* Default value: n/a.
622		*
623		* Property type: string.
624		*/
625		const char* AI_CONFIG_IMPORT_MD3_SHADER_SRC = "IMPORT_MD3_SHADER_SRC";
626
627		/**
628		* Configures the LWO loader to load just one layer from the model.
629		*
630		* LWO files consist of layers and in some cases it could be useful to load
631		* only one of them. This property can be either a string – which specifies
632		* the name of the layer – or an integer – the index of the layer. If the
633		* property is not set the whole LWO model is loaded. Loading fails if the
634		* requested layer is not available. The layer index is zero-based and the
635		* layer name may not be empty.
636		*
637		* Default value: all layers are loaded.
638		*
639		* Property type: integer/string.
640		*/
641		const char* AI_CONFIG_IMPORT_LWO_ONE_LAYER_ONLY = "IMPORT_LWO_ONE_LAYER_ONLY";
642
643		/**
644		* Configures the MD5 loader to not load the MD5ANIM file for a MD5MESH file
645		* automatically.
646		*
647		* The default strategy is to look for a file with the same name but the
648		* MD5ANIM extension in the same directory. If it is found, it is loaded
649		* and combined with the MD5MESH file. This configuration option can be
650		* used to disable this behaviour.
651		*
652		* Default value: false.
653		*
654		* Property type: bool.
655		*/
656		const char* AI_CONFIG_IMPORT_MD5_NO_ANIM_AUTOLOAD = "IMPORT_MD5_NO_ANIM_AUTOLOAD";
657
658		/**
659		* Defines the begin of the time range for which the LWS loader evaluates
660		* animations and computes <code>aiNodeAnim</code>s.
661		*
662		* Assimp provides full conversion of LightWave's envelope system, including
663		* pre and post conditions. The loader computes linearly subsampled animation
664		* chanels with the frame rate given in the LWS file. This property defines
665		* the start time. Note: animation channels are only generated if a node
666		* has at least one envelope with more tan one key assigned. This property.
667		* is given in frames, '0' is the first frame. By default, if this property
668		* is not set, the importer takes the animation start from the input LWS
669		* file ('FirstFrame' line).
670		*
671		* Default value: read from file.
672		*
673		* Property type: integer.
674		*
675		* See: <code>AI_CONFIG_IMPORT_LWS_ANIM_END</code> – end of the imported
676		* time range
677		*/
678		const char* AI_CONFIG_IMPORT_LWS_ANIM_START = "IMPORT_LWS_ANIM_START";
679		const char* AI_CONFIG_IMPORT_LWS_ANIM_END = "IMPORT_LWS_ANIM_END";
680
681		/**
682		* Defines the output frame rate of the IRR loader.
683		*
684		* IRR animations are difficult to convert for Assimp and there will always
685		* be a loss of quality. This setting defines how many keys per second are
686		* returned by the converter.
687		*
688		* Default value: 100.
689		*
690		* Property type: integer.
691		*/
692		const char* AI_CONFIG_IMPORT_IRR_ANIM_FPS = "IMPORT_IRR_ANIM_FPS";
693
694		/**
695		* Ogre Importer will try to load this material file.
696		*
697		* Ogre Mehs contain only the material name, not the material file. If there
698		* is no material file with the same name as the material, Ogre Importer
699		* will try to load this file and search the material in it.
700		*
701		* Property type: string. Default value: "Scene.material".
702		*/
703		const char* AI_CONFIG_IMPORT_OGRE_MATERIAL_FILE = "IMPORT_OGRE_MATERIAL_FILE";
704		}

-140

~~port/unmaintained/dAssimp/assimp/fileIO.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* The data structures necessary to use Assimip with a custom IO system.
43		*/
44		module assimp.fileIO;
45
46		import assimp.types;
47
48		extern ( C ) {
49		// aiFile callbacks
50		alias size_t function( aiFile, char, size_t, size_t ) aiFileWriteProc;
51		alias size_t function( aiFile, char, size_t, size_t ) aiFileReadProc;
52		alias size_t function( aiFile* ) aiFileTellProc;
53		alias void function( aiFile* ) aiFileFlushProc;
54		alias aiReturn function( aiFile*, size_t, aiOrigin ) aiFileSeek;
55
56		// aiFileIO callbacks
57		alias aiFile* function( aiFileIO, char, char* ) aiFileOpenProc;
58		alias void function( aiFileIO, aiFile ) aiFileCloseProc;
59
60		/**
61		* Represents user-defined data.
62		*/
63		alias char* aiUserData;
64
65		/**
66		* File system callbacks.
67		*
68		* Provided are functions to open and close files. Supply a custom structure
69		* to the import function. If you don't, a default implementation is used.
70		* Use custom file systems to enable reading from other sources, such as
71		* ZIPs or memory locations.
72		*/
73		struct aiFileIO {
74		/**
75		* Function used to open a new file
76		*/
77		aiFileOpenProc OpenProc;
78
79		/**
80		* Function used to close an existing file
81		*/
82		aiFileCloseProc CloseProc;
83
84		/**
85		* User-defined, opaque data.
86		*/
87		aiUserData UserData;
88		}
89
90		/**
91		* File callbacks.
92		*
93		* Actually, it's a data structure to wrap a set of <code>fXXXX</code>
94		* (e.g <code>fopen()</code>) replacement functions.
95		*
96		* The default implementation of the functions utilizes the <code>fXXX</code>
97		* functions from the CRT. However, you can supply a custom implementation
98		* to Assimp by passing a custom <code>aiFileIO</code>. Use this to enable
99		* reading from other sources such as ZIP archives or memory locations.
100		*/
101		struct aiFile {
102		/**
103		* Callback to read from a file.
104		*/
105		aiFileReadProc ReadProc;
106
107		/**
108		* Callback to write to a file.
109		*/
110		aiFileWriteProc WriteProc;
111
112		/**
113		* Callback to retrieve the current position of the file cursor
114		* (<code>ftell()</code>).
115		*/
116		aiFileTellProc TellProc;
117
118		/**
119		* Callback to retrieve the size of the file, in bytes.
120		*/
121		aiFileTellProc FileSizeProc;
122
123		/**
124		* Callback to set the current position of the file cursor
125		* (<code>fseek()</code>).
126		*/
127		aiFileSeek SeekProc;
128
129		/**
130		* Callback to flush the file contents.
131		*/
132		aiFileFlushProc FlushProc;
133
134		/**
135		* User-defined, opaque data.
136		*/
137		aiUserData UserData;
138		}
139		}

-215

~~port/unmaintained/dAssimp/assimp/light.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Contains the data structures which are used to store the imported information
43		* about the light sources in the scene.
44		*/
45		module assimp.light;
46
47		import assimp.math;
48		import assimp.types;
49
50		extern ( C ) {
51		/**
52		* Enumerates all supported types of light sources.
53		*/
54		enum aiLightSourceType : uint {
55		UNDEFINED = 0x0,
56
57		/**
58		* A directional light source has a well-defined direction but is
59		* infinitely far away. That's quite a good approximation for sun light.
60		*/
61		DIRECTIONAL = 0x1,
62
63		/**
64		* A point light source has a well-defined position in space but no
65		* direction – it emits light in all directions. A normal bulb is a point
66		* light.
67		*/
68		POINT = 0x2,
69
70		/**
71		* A spot light source emits light in a specific angle. It has a position
72		* and a direction it is pointing to. A good example for a spot light is
73		* a light spot in sport arenas.
74		*/
75		SPOT = 0x3
76		}
77
78		/**
79		* Helper structure to describe a light source.
80		*
81		* Assimp supports multiple sorts of light sources, including directional,
82		* point and spot lights. All of them are defined with just a single
83		* structure and distinguished by their parameters.
84		*
85		* Note: Some file formats (such as 3DS, ASE) export a "target point" – the
86		* point a spot light is looking at (it can even be animated). Assimp
87		* writes the target point as a subnode of a spotlights's main node, called
88		* <code>[spotName].Target</code>. However, this is just additional
89		* information then, the transformation tracks of the main node make the
90		* spot light already point in the right direction.
91		*/
92		struct aiLight {
93		/**
94		* The name of the light source.
95		*
96		* There must be a node in the scenegraph with the same name. This node
97		* specifies the position of the light in the scenehierarchy and can be
98		* animated.
99		*/
100		aiString mName;
101
102		/**
103		* The type of the light source.
104		*
105		* <code>aiLightSource.UNDEFINED</code> is not a valid value for this
106		* member.
107		*/
108		aiLightSourceType mType;
109
110		/**
111		* Position of the light source in space. Relative to the transformation
112		* of the node corresponding to the light.
113		*
114		* The position is undefined for directional lights.
115		*/
116		aiVector3D mPosition;
117
118		/**
119		* Direction of the light source in space. Relative to the transformation
120		* of the node corresponding to the light.
121		*
122		* The direction is undefined for point lights. The vector may be
123		* normalized, but it needn't.
124		*/
125		aiVector3D mDirection;
126
127		/**
128		* Constant light attenuation factor.
129		*
130		* The intensity of the light source at a given distance
131		* <code>d</code> from the light's position is
132		* <code>1/( att0 + att1 * d + att2 * d * d )</code>. This member
133		* corresponds to the <code>att0</code> variable in the equation.
134		*
135		* Naturally undefined for directional lights.
136		*/
137		float mAttenuationConstant;
138
139		/**
140		* Linear light attenuation factor.
141		*
142		* The intensity of the light source at a given distance
143		* <code>d</code> from the light's position is
144		* <code>1/( att0 + att1 * d + att2 * d * d )</code>. This member
145		* corresponds to the <code>att1</code> variable in the equation.
146		*
147		* Naturally undefined for directional lights.
148		*/
149		float mAttenuationLinear;
150
151		/**
152		* Quadratic light attenuation factor.
153		*
154		* The intensity of the light source at a given distance
155		* <code>d</code> from the light's position is
156		* <code>1/( att0 + att1 * d + att2 * d * d )</code>. This member
157		* corresponds to the <code>att2</code> variable in the equation.
158		*
159		* Naturally undefined for directional lights.
160		*/
161		float mAttenuationQuadratic;
162
163		/**
164		* Diffuse color of the light source
165		*
166		* The diffuse light color is multiplied with the diffuse material color
167		* to obtain the final color that contributes to the diffuse shading term.
168		*/
169		aiColor3D mColorDiffuse;
170
171		/**
172		* Specular color of the light source
173		*
174		* The specular light color is multiplied with the specular material
175		* color to obtain the final color that contributes to the specular
176		* shading term.
177		*/
178		aiColor3D mColorSpecular;
179
180		/**
181		* Ambient color of the light source
182		*
183		* The ambient light color is multiplied with the ambient material color
184		* to obtain the final color that contributes to the ambient shading term.
185		*
186		* Most renderers will ignore this value it, is just a remaining of the
187		* fixed-function pipeline that is still supported by quite many file
188		* formats.
189		*/
190		aiColor3D mColorAmbient;
191
192		/**
193		* Inner angle of a spot light's light cone.
194		*
195		* The spot light has maximum influence on objects inside this angle. The
196		* angle is given in radians. It is 2PI for point lights and undefined
197		* for directional lights.
198		*/
199		float mAngleInnerCone;
200
201		/**
202		* Outer angle of a spot light's light cone.
203		*
204		* The spot light does not affect objects outside this angle. The angle
205		* is given in radians. It is 2PI for point lights and undefined for
206		* directional lights. The outer angle must be greater than or equal to
207		* the inner angle.
208		*
209		* It is assumed that the application uses a smooth interpolation between
210		* the inner and the outer cone of the spot light.
211		*/
212		float mAngleOuterCone;
213		}
214		}

-193

~~port/unmaintained/dAssimp/assimp/loader.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Provides facilities for dynamically loading the Assimp library.
43		*
44		* Currently requires Tango, but there is no reason why Phobos could not be
45		* supported too.
46		*/
47		module assimp.loader;
48
49		import assimp.api;
50		import tango.io.Stdout;
51		import tango.sys.SharedLib;
52
53		const uint ASSIMP_BINDINGS_MAJOR = 2;
54		const uint ASSIMP_BINDINGS_MINOR = 0;
55
56		/**
57		* Loader class for dynamically loading the Assimp library.
58		*
59		* The library is »reference-counted«, meaning that the library is not
60		* unloaded on a call to <code>unload()</code> if there are still other
61		* references to it.
62		*/
63		struct Assimp {
64		public:
65		/**
66		* Loads the library if it is not already loaded and increases the
67		* reference counter.
68		*
69		* The library file (<code>libassimp.so</code> on POSIX systems,
70		* <code>Assimp32.dll</code> on Win32) is loaded via Tango's SharedLib
71		* class.
72		*/
73		static void load() {
74		if ( m_sRefCount == 0 ) {
75		version ( Posix ) {
76		version ( OSX ) {
77		m_sLibrary = SharedLib.load( "libassimp.dylib" );
78		} else {
79		m_sLibrary = SharedLib.load( "libassimp.so" );
80		}
81		}
82		version ( Win32 ) {
83		m_sLibrary = SharedLib.load( "Assimp32.dll" );
84		}
85
86		// Versioning
87		mixin( bindCode( "aiGetLegalString" ) );
88		mixin( bindCode( "aiGetVersionMinor" ) );
89		mixin( bindCode( "aiGetVersionMajor" ) );
90		mixin( bindCode( "aiGetVersionRevision" ) );
91		mixin( bindCode( "aiGetCompileFlags" ) );
92
93		// Check for version mismatch between the external, dynamically loaded
94		// library and the version the bindings were created against.
95		uint libMajor = aiGetVersionMajor();
96		uint libMinor = aiGetVersionMinor();
97
98		if ( ( libMajor < ASSIMP_BINDINGS_MAJOR ) \|\|
99		( libMinor < ASSIMP_BINDINGS_MINOR ) ) {
100		Stdout.format(
101		"WARNING: Assimp version too old (loaded library: {}.{}, " ~
102		"bindings: {}.{})!",
103		libMajor,
104		libMinor,
105		ASSIMP_BINDINGS_MAJOR,
106		ASSIMP_BINDINGS_MINOR
107		).newline;
108		}
109
110		if ( libMajor > ASSIMP_BINDINGS_MAJOR ) {
111		Stdout.format(
112		"WARNING: Assimp version too new (loaded library: {}.{}, " ~
113		"bindings: {}.{})!",
114		libMajor,
115		libMinor,
116		ASSIMP_BINDINGS_MAJOR,
117		ASSIMP_BINDINGS_MINOR
118		).newline;
119		}
120
121		// General API
122		mixin( bindCode( "aiImportFile" ) );
123		mixin( bindCode( "aiImportFileEx" ) );
124		mixin( bindCode( "aiImportFileFromMemory" ) );
125		mixin( bindCode( "aiApplyPostProcessing" ) );
126		mixin( bindCode( "aiGetPredefinedLogStream" ) );
127		mixin( bindCode( "aiAttachLogStream" ) );
128		mixin( bindCode( "aiEnableVerboseLogging" ) );
129		mixin( bindCode( "aiDetachLogStream" ) );
130		mixin( bindCode( "aiDetachAllLogStreams" ) );
131		mixin( bindCode( "aiReleaseImport" ) );
132		mixin( bindCode( "aiGetErrorString" ) );
133		mixin( bindCode( "aiIsExtensionSupported" ) );
134		mixin( bindCode( "aiGetExtensionList" ) );
135		mixin( bindCode( "aiGetMemoryRequirements" ) );
136		mixin( bindCode( "aiSetImportPropertyInteger" ) );
137		mixin( bindCode( "aiSetImportPropertyFloat" ) );
138		mixin( bindCode( "aiSetImportPropertyString" ) );
139
140		// Mathematical functions
141		mixin( bindCode( "aiCreateQuaternionFromMatrix" ) );
142		mixin( bindCode( "aiDecomposeMatrix" ) );
143		mixin( bindCode( "aiTransposeMatrix4" ) );
144		mixin( bindCode( "aiTransposeMatrix3" ) );
145		mixin( bindCode( "aiTransformVecByMatrix3" ) );
146		mixin( bindCode( "aiTransformVecByMatrix4" ) );
147		mixin( bindCode( "aiMultiplyMatrix4" ) );
148		mixin( bindCode( "aiMultiplyMatrix3" ) );
149		mixin( bindCode( "aiIdentityMatrix3" ) );
150		mixin( bindCode( "aiIdentityMatrix4" ) );
151
152		// Material system
153		mixin( bindCode( "aiGetMaterialProperty" ) );
154		mixin( bindCode( "aiGetMaterialFloatArray" ) );
155		mixin( bindCode( "aiGetMaterialIntegerArray" ) );
156		mixin( bindCode( "aiGetMaterialColor" ) );
157		mixin( bindCode( "aiGetMaterialString" ) );
158		mixin( bindCode( "aiGetMaterialTextureCount" ) );
159		mixin( bindCode( "aiGetMaterialTexture" ) );
160		}
161		++m_sRefCount;
162		}
163
164		/**
165		* Decreases the reference counter and unloads the library if this was the
166		* last reference.
167		*/
168		static void unload() {
169		assert( m_sRefCount > 0 );
170		--m_sRefCount;
171
172		if ( m_sRefCount == 0 ) {
173		m_sLibrary.unload();
174		}
175		}
176
177		private:
178		/// Current number of references to the library.
179		static uint m_sRefCount;
180
181		/// Library handle.
182		static SharedLib m_sLibrary;
183		}
184
185		/**
186		* Private helper function which constructs the bind command for a symbol to
187		* keep the code DRY.
188		*/
189		private char[] bindCode( char[] symbol ) {
190		return symbol ~ " = cast( typeof( " ~ symbol ~
191		" ) )m_sLibrary.getSymbol( `" ~ symbol ~ "` );";
192		}

-641

~~port/unmaintained/dAssimp/assimp/material.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Contains the material system which stores the imported material information.
43		*/
44		module assimp.material;
45
46		import assimp.math;
47		import assimp.types;
48
49		extern ( C ) {
50		/**
51		* Default material names for meshes without UV coordinates.
52		*/
53		const char* AI_DEFAULT_MATERIAL_NAME = "aiDefaultMat";
54
55		/**
56		* Default material names for meshes with UV coordinates.
57		*/
58		const char* AI_DEFAULT_TEXTURED_MATERIAL_NAME = "TexturedDefaultMaterial";
59
60		/**
61		* Defines how the Nth texture of a specific type is combined with the
62		* result of all previous layers.
63		*
64		* Example (left: key, right: value):
65		* <pre> DiffColor0 - gray
66		* DiffTextureOp0 - aiTextureOpMultiply
67		* DiffTexture0 - tex1.png
68		* DiffTextureOp0 - aiTextureOpAdd
69		* DiffTexture1 - tex2.png</pre>
70		* Written as equation, the final diffuse term for a specific pixel would be:
71		* <pre>diffFinal = DiffColor0 * sampleTex( DiffTexture0, UV0 ) +
72		* sampleTex( DiffTexture1, UV0 ) * diffContrib;</pre>
73		* where <code>diffContrib</code> is the intensity of the incoming light for
74		* that pixel.
75		*/
76		enum aiTextureOp : uint {
77		/**
78		* <code>T = T1 * T2</code>
79		*/
80		Multiply = 0x0,
81
82		/**
83		* <code>T = T1 + T2</code>
84		*/
85		Add = 0x1,
86
87		/**
88		* <code>T = T1 - T2</code>
89		*/
90		Subtract = 0x2,
91
92		/**
93		* <code>T = T1 / T2</code>
94		*/
95		Divide = 0x3,
96
97		/**
98		* <code>T = ( T1 + T2 ) - ( T1 * T2 )</code>
99		*/
100		SmoothAdd = 0x4,
101
102		/**
103		* <code>T = T1 + ( T2 - 0.5 )</code>
104		*/
105		SignedAdd = 0x5
106		}
107
108		/**
109		* Defines how UV coordinates outside the <code>[0..1]</code> range are
110		* handled.
111		*
112		* Commonly refered to as 'wrapping mode'.
113		*/
114		enum aiTextureMapMode : uint {
115		/**
116		* A texture coordinate <code>u \| v</code> is translated to
117		* <code>(u%1) \| (v%1)</code>.
118		*/
119		Wrap = 0x0,
120
121		/**
122		* Texture coordinates are clamped to the nearest valid value.
123		*/
124		Clamp = 0x1,
125
126		/**
127		* If the texture coordinates for a pixel are outside
128		* <code>[0..1]</code>, the texture is not applied to that pixel.
129		*/
130		Decal = 0x3,
131
132		/**
133		* A texture coordinate <code>u \| v</code> becomes
134		* <code>(u%1) \| (v%1)</code> if <code>(u-(u%1))%2</code> is
135		* zero and <code>(1-(u%1)) \| (1-(v%1))</code> otherwise.
136		*/
137		Mirror = 0x2
138		}
139
140		/**
141		* Defines how the mapping coords for a texture are generated.
142		*
143		* Real-time applications typically require full UV coordinates, so the use of
144		* the <code>aiProcess.GenUVCoords</code> step is highly recommended. It
145		* generates proper UV channels for non-UV mapped objects, as long as an
146		* accurate description how the mapping should look like (e.g spherical) is
147		* given. See the <code>AI_MATKEY_MAPPING</code> property for more details.
148		*/
149		enum aiTextureMapping : uint {
150		/**
151		* The mapping coordinates are taken from an UV channel.
152		*
153		* The <code>AI_MATKEY_UVSRC</code> key specifies from which (remember,
154		* meshes can have more than one UV channel).
155		*/
156		UV = 0x0,
157
158		/**
159		* Spherical mapping.
160		*/
161		SPHERE = 0x1,
162
163		/**
164		* Cylindrical mapping.
165		*/
166		CYLINDER = 0x2,
167
168		/**
169		* Cubic mapping.
170		*/
171		BOX = 0x3,
172
173		/**
174		* Planar mapping.
175		*/
176		PLANE = 0x4,
177
178		/**
179		* Undefined mapping.
180		*/
181		OTHER = 0x5
182		}
183
184		/**
185		* Defines the purpose of a texture
186		*
187		* This is a very difficult topic. Different 3D packages support different
188		* kinds of textures. For very common texture types, such as bumpmaps, the
189		* rendering results depend on implementation details in the rendering
190		* pipelines of these applications. Assimp loads all texture references from
191		* the model file and tries to determine which of the predefined texture
192		* types below is the best choice to match the original use of the texture
193		* as closely as possible.
194		*
195		* In content pipelines you'll usually define how textures have to be
196		* handled, and the artists working on models have to conform to this
197		* specification, regardless which 3D tool they're using.
198		*/
199		enum aiTextureType : uint {
200		/**
201		* No texture, but the value to be used for
202		* <code>aiMaterialProperty.mSemantic</code> for all material properties
203		* <em>not</em> related to textures.
204		*/
205		NONE = 0x0,
206
207		/**
208		* The texture is combined with the result of the diffuse lighting
209		* equation.
210		*/
211		DIFFUSE = 0x1,
212
213		/**
214		* The texture is combined with the result of the specular lighting
215		* equation.
216		*/
217		SPECULAR = 0x2,
218
219		/**
220		* The texture is combined with the result of the ambient lighting
221		* equation.
222		*/
223		AMBIENT = 0x3,
224
225		/**
226		* The texture is added to the result of the lighting calculation. It
227		* isn't influenced by incoming light.
228		*/
229		EMISSIVE = 0x4,
230
231		/**
232		* The texture is a height map.
233		*
234		* By convention, higher grey-scale values stand for higher elevations
235		* from the base height.
236		*/
237		HEIGHT = 0x5,
238
239		/**
240		* The texture is a (tangent space) normal-map.
241		*
242		* Again, there are several conventions for tangent-space normal maps.
243		* Assimp does (intentionally) not differenciate here.
244		*/
245		NORMALS = 0x6,
246
247		/**
248		* The texture defines the glossiness of the material.
249		*
250		* The glossiness is in fact the exponent of the specular (phong)
251		* lighting equation. Usually there is a conversion function defined to
252		* map the linear color values in the texture to a suitable exponent.
253		*/
254		SHININESS = 0x7,
255
256		/**
257		* The texture defines per-pixel opacity.
258		*
259		* Usually white means opaque and black means transparent.
260		*/
261		OPACITY = 0x8,
262
263		/**
264		* Displacement texture.
265		*
266		* The exact purpose and format is application-dependent. Higher color
267		* values stand for higher vertex displacements.
268		*/
269		DISPLACEMENT = 0x9,
270
271		/**
272		* Lightmap or ambient occlusion texture.
273		*
274		* Both lightmaps and dedicated ambient occlusion maps are covered by
275		* this material property. The texture contains a scaling value for the
276		* final color value of a pixel. Its intensity is not affected by
277		* incoming light.
278		*/
279		LIGHTMAP = 0xA,
280
281		/**
282		* Reflection texture.
283		*
284		* Contains the color of a perfect mirror reflection. Rarely used, almost
285		* never for real-time applications.
286		*/
287		REFLECTION = 0xB,
288
289		/**
290		* Unknown texture.
291		*
292		* A texture reference that does not match any of the definitions above is
293		* considered to be 'unknown'. It is still imported, but is excluded from
294		* any further postprocessing.
295		*/
296		UNKNOWN = 0xC
297		}
298
299		/**
300		* Defines all shading models supported by the library
301		*
302		* The list of shading modes has been taken from Blender. See Blender
303		* documentation for more information. The API does not distinguish between
304		* "specular" and "diffuse" shaders (thus the specular term for diffuse
305		* shading models like Oren-Nayar remains undefined).
306		*
307		* Again, this value is just a hint. Assimp tries to select the shader whose
308		* most common implementation matches the original rendering results of the
309		* 3D modeller which wrote a particular model as closely as possible.
310		*/
311		enum aiShadingMode : uint {
312		/**
313		* Flat shading.
314		*
315		* Shading is done on per-face base diffuse only. Also known as
316		* »faceted shading«.
317		*/
318		Flat = 0x1,
319
320		/**
321		* Simple Gouraud shading.
322		*/
323		Gouraud = 0x2,
324
325		/**
326		* Phong-Shading.
327		*/
328		Phong = 0x3,
329
330		/**
331		* Phong-Blinn-Shading.
332		*/
333		Blinn = 0x4,
334
335		/**
336		* Per-pixel toon shading.
337		*
338		* Often referred to as »comic shading«.
339		*/
340		Toon = 0x5,
341
342		/**
343		* Per-pixel Oren-Nayar shading.
344		*
345		* Extension to standard Lambertian shading, taking the roughness of the
346		* material into account.
347		*/
348		OrenNayar = 0x6,
349
350		/**
351		* Per-pixel Minnaert shading.
352		*
353		* Extension to standard Lambertian shading, taking the "darkness" of the
354		* material into account.
355		*/
356		Minnaert = 0x7,
357
358		/**
359		* Per-pixel Cook-Torrance shading.
360		*
361		* Special shader for metallic surfaces.
362		*/
363		CookTorrance = 0x8,
364
365		/**
366		* No shading at all.
367		*
368		* Constant light influence of 1.
369		*/
370		NoShading = 0x9,
371
372		/**
373		* Fresnel shading.
374		*/
375		Fresnel = 0xa
376		}
377
378		/**
379		* Defines some mixed flags for a particular texture.
380		*
381		* Usually you'll instruct your cg artists how textures have to look like
382		* and how they will be processed in your application. However, if you use
383		* Assimp for completely generic loading purposes you might also need to
384		* process these flags in order to display as many 'unknown' 3D models as
385		* possible correctly.
386		*
387		* This corresponds to the <code>AI_MATKEY_TEXFLAGS</code> property.
388		*/
389		enum aiTextureFlags : uint {
390		/**
391		* The texture's color values have to be inverted (i.e. <code>1-n</code>
392		* component-wise).
393		*/
394		Invert = 0x1,
395
396		/**
397		* Explicit request to the application to process the alpha channel of the
398		* texture.
399		*
400		* Mutually exclusive with <code>IgnoreAlpha</code>. These flags are
401		* set if the library can say for sure that the alpha channel is used/is
402		* not used. If the model format does not define this, it is left to the
403		* application to decide whether the texture alpha channel – if any – is
404		* evaluated or not.
405		*/
406		UseAlpha = 0x2,
407
408		/**
409		* Explicit request to the application to ignore the alpha channel of the
410		* texture.
411		*
412		* Mutually exclusive with <code>UseAlpha</code>.
413		*/
414		IgnoreAlpha = 0x4
415		}
416
417
418		/**
419		* Defines alpha-blend flags.
420		*
421		* If you're familiar with OpenGL or D3D, these flags aren't new to you.
422		* They define how the final color value of a pixel is computed, based on
423		* the previous color at that pixel and the new color value from the
424		* material.
425		*
426		* The basic blending formula is
427		* <code>SourceColor * SourceBlend + DestColor * DestBlend</code>,
428		* where <code>DestColor</code> is the previous color in the framebuffer at
429		* this position and <code>SourceColor</code> is the material color before
430		* the transparency calculation.
431		*
432		* This corresponds to the <code>AI_MATKEY_BLEND_FUNC</code> property.
433		*/
434		enum aiBlendMode :uint {
435		/**
436		* Formula:
437		* <code>SourceColor * SourceAlpha + DestColor * (1 - SourceAlpha)</code>
438		*/
439		Default = 0x0,
440
441		/**
442		* Additive blending.
443		*
444		* Formula: <code>SourceColor1 + DestColor1</code>
445		*/
446		Additive = 0x1
447		}
448
449		/**
450		* Defines how an UV channel is transformed.
451		*
452		* This is just a helper structure for the <code>AI_MATKEY_UVTRANSFORM</code>
453		* key. See its documentation for more details.
454		*/
455		struct aiUVTransform {
456		align ( 1 ) :
457		/**
458		* Translation on the u and v axes.
459		*
460		* The default value is (0\|0).
461		*/
462		aiVector2D mTranslation;
463
464		/**
465		* Scaling on the u and v axes.
466		*
467		* The default value is (1\|1).
468		*/
469		aiVector2D mScaling;
470
471		/**
472		* Rotation - in counter-clockwise direction.
473		*
474		* The rotation angle is specified in radians. The rotation center is
475		* 0.5\|0.5. The default value is 0.
476		*/
477		float mRotation;
478		}
479
480		/**
481		* A very primitive RTTI system to store the data type of a material
482		* property.
483		*/
484		enum aiPropertyTypeInfo : uint {
485		/**
486		* Array of single-precision (32 bit) floats.
487		*
488		* It is possible to use <code>aiGetMaterialInteger[Array]()</code> to
489		* query properties stored in floating-point format. The material system
490		* performs the type conversion automatically.
491		*/
492		Float = 0x1,
493
494		/**
495		* aiString property.
496		*
497		* Arrays of strings aren't possible, <code>aiGetMaterialString()</code>
498		* must be used to query a string property.
499		*/
500		String = 0x3,
501
502		/**
503		* Array of (32 bit) integers.
504		*
505		* It is possible to use <code>aiGetMaterialFloat[Array]()</code> to
506		* query properties stored in integer format. The material system
507		* performs the type conversion automatically.
508		*/
509		Integer = 0x4,
510
511		/**
512		* Simple binary buffer, content undefined. Not convertible to anything.
513		*/
514		Buffer = 0x5
515		}
516
517		/**
518		* Data structure for a single material property.
519		*
520		* As an user, you'll probably never need to deal with this data structure.
521		* Just use the provided <code>aiGetMaterialXXX()</code> functions to query
522		* material properties easily. Processing them manually is faster, but it is
523		* not the recommended way. It isn't worth the effort.
524		*
525		* Material property names follow a simple scheme:
526		*
527		* <code>$[name]</code>: A public property, there must be a corresponding
528		* AI_MATKEY_XXX constant.
529		*
530		* <code>?[name]</code>: Also public, but ignored by the
531		* <code>aiProcess.RemoveRedundantMaterials</code> post-processing step.
532		*
533		* <code>~[name]</code>: A temporary property for internal use.
534		*/
535		struct aiMaterialProperty {
536		/**
537		* Specifies the name of the property (key).
538		*
539		* Keys are generally case insensitive.
540		*/
541		aiString mKey;
542
543		/**
544		* For texture properties, this specifies the exact usage semantic.
545		*
546		* For non-texture properties, this member is always 0 (or rather
547		* <code>aiTextureType.NONE</code>).
548		*/
549		uint mSemantic;
550
551		/**
552		* For texture properties, this specifies the index of the texture.
553		*
554		* For non-texture properties, this member is always 0.
555		*/
556		uint mIndex;
557
558		/**
559		* Size of the buffer <code>mData</code> is pointing to (in bytes).
560		*
561		* This value may not be 0.
562		*/
563		uint mDataLength;
564
565		/**
566		* Type information for the property.
567		*
568		* Defines the data layout inside the data buffer. This is used by the
569		* library internally to perform debug checks and to utilize proper type
570		* conversions.
571		*/
572		aiPropertyTypeInfo mType;
573
574		/**
575		* Binary buffer to hold the property's value.
576		*
577		* The size of the buffer is always <code>mDataLength</code>.
578		*/
579		char* mData;
580		}
581
582		/**
583		* Data structure for a material
584		*
585		* Material data is stored using a key-value structure. A single key-value
586		* pair is called a <em>material property</em>. The properties can be
587		* queried using the <code>aiMaterialGetXXX</code> family of functions. The
588		* library defines a set of standard keys (AI_MATKEY_XXX).
589		*/
590		struct aiMaterial {
591		/**
592		* List of all material properties loaded.
593		*/
594		aiMaterialProperty** mProperties;
595
596		/**
597		* Number of properties loaded.
598		*/
599		uint mNumProperties;
600		uint mNumAllocated; /// ditto
601		}
602
603		/**
604		* Standard material property keys. Always pass 0 for texture type and index
605		* when querying these keys.
606		*/
607		const char* AI_MATKEY_NAME = "?mat.name";
608		const char* AI_MATKEY_TWOSIDED = "$mat.twosided"; /// ditto
609		const char* AI_MATKEY_SHADING_MODEL = "$mat.shadingm"; /// ditto
610		const char* AI_MATKEY_ENABLE_WIREFRAME = "$mat.wireframe"; /// ditto
611		const char* AI_MATKEY_BLEND_FUNC = "$mat.blend"; /// ditto
612		const char* AI_MATKEY_OPACITY = "$mat.opacity"; /// ditto
613		const char* AI_MATKEY_BUMPSCALING = "$mat.bumpscaling"; /// ditto
614		const char* AI_MATKEY_SHININESS = "$mat.shininess"; /// ditto
615		const char* AI_MATKEY_REFLECTIVITY = "$mat.reflectivity"; /// ditto
616		const char* AI_MATKEY_SHININESS_STRENGTH = "$mat.shinpercent"; /// ditto
617		const char* AI_MATKEY_REFRACTI = "$mat.refracti"; /// ditto
618		const char* AI_MATKEY_COLOR_DIFFUSE = "$clr.diffuse"; /// ditto
619		const char* AI_MATKEY_COLOR_AMBIENT = "$clr.ambient"; /// ditto
620		const char* AI_MATKEY_COLOR_SPECULAR = "$clr.specular"; /// ditto
621		const char* AI_MATKEY_COLOR_EMISSIVE = "$clr.emissive"; /// ditto
622		const char* AI_MATKEY_COLOR_TRANSPARENT = "$clr.transparent"; /// ditto
623		const char* AI_MATKEY_COLOR_REFLECTIVE = "$clr.reflective"; /// ditto
624		const char* AI_MATKEY_GLOBAL_BACKGROUND_IMAGE = "?bg.global"; /// ditto
625
626		/**
627		* Texture material property keys. Do not forget to specify texture type and
628		* index for these keys.
629		*/
630		const char* AI_MATKEY_TEXTURE = "$tex.file";
631		const char* AI_MATKEY_UVWSRC = "$tex.uvwsrc"; /// ditto
632		const char* AI_MATKEY_TEXOP = "$tex.op"; /// ditto
633		const char* AI_MATKEY_MAPPING = "$tex.mapping"; /// ditto
634		const char* AI_MATKEY_TEXBLEND = "$tex.blend"; /// ditto
635		const char* AI_MATKEY_MAPPINGMODE_U = "$tex.mapmodeu"; /// ditto
636		const char* AI_MATKEY_MAPPINGMODE_V = "$tex.mapmodev"; /// ditto
637		const char* AI_MATKEY_TEXMAP_AXIS = "$tex.mapaxis"; /// ditto
638		const char* AI_MATKEY_UVTRANSFORM = "$tex.uvtrafo"; /// ditto
639		const char* AI_MATKEY_TEXFLAGS = "$tex.flags"; /// ditto
640		}

-155

~~port/unmaintained/dAssimp/assimp/math.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Mathematical structures in which the imported data is stored.
43		*/
44		module assimp.math;
45
46		extern( C ) {
47		/**
48		* Represents a two-dimensional vector.
49		*/
50		struct aiVector2D {
51		align ( 1 ):
52		float x, y;
53		}
54
55		/**
56		* Represents a three-dimensional vector.
57		*/
58		struct aiVector3D {
59		align ( 1 ):
60		float x, y, z;
61		}
62
63		/**
64		* Represents a quaternion.
65		*/
66		struct aiQuaternion {
67		float w, x, y, z;
68		}
69
70		/**
71		* Represents a row-major 3x3 matrix
72		*
73		* There is much confusion about matrix layouts (colum vs. row order). This
74		* is <em>always</em> a row-major matrix, even when using the
75		* <code>ConvertToLeftHanded</code> post processing step.
76		*/
77		struct aiMatrix3x3 {
78		float a1, a2, a3;
79		float b1, b2, b3;
80		float c1, c2, c3;
81		}
82
83		/**
84		* Represents a row-major 3x3 matrix
85		*
86		* There is much confusion about matrix layouts (colum vs. row order). This
87		* is <em>always</em> a row-major matrix, even when using the
88		* <code>ConvertToLeftHanded</code> post processing step.
89		*/
90		struct aiMatrix4x4 {
91		align ( 1 ):
92		float a1, a2, a3, a4;
93		float b1, b2, b3, b4;
94		float c1, c2, c3, c4;
95		float d1, d2, d3, d4;
96		}
97
98		/**
99		* Represents a plane in a three-dimensional, euclidean space
100		*/
101		struct aiPlane {
102		align ( 1 ):
103		/**
104		* Coefficients of the plane equation (<code>ax + by + cz = d</code>).
105		*/
106		float a;
107		float b; /// ditto
108		float c; /// ditto
109		float d; /// ditto
110		}
111
112		/**
113		* Represents a ray.
114		*/
115		struct aiRay {
116		align ( 1 ):
117		/**
118		* Origin of the ray.
119		*/
120		aiVector3D pos;
121
122		/**
123		* Direction of the ray.
124		*/
125		aiVector3D dir;
126		}
127
128		/**
129		* Represents a color in RGB space.
130		*/
131		struct aiColor3D {
132		align ( 1 ):
133		/**
134		* Red, green and blue values.
135		*/
136		float r;
137		float g; /// ditto
138		float b; /// ditto
139		}
140
141		/**
142		* Represents a color in RGB space including an alpha component.
143		*/
144		struct aiColor4D {
145		align ( 1 ):
146		/**
147		* Red, green, blue and alpha values.
148		*/
149		float r;
150		float g; /// ditto
151		float b; /// ditto
152		float a; /// ditto
153		}
154		}

-465

~~port/unmaintained/dAssimp/assimp/mesh.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Contains the data structures in which the imported geometry is returned by
43		* Assimp.
44		*/
45		module assimp.mesh;
46
47		import assimp.math;
48		import assimp.types;
49
50		extern ( C ) {
51		/*
52		* These limits are required to match the settings Assimp was compiled
53		* against. Therfore, do not redefine them unless you build the library
54		* from source using the same definitions.
55		*/
56
57		/**
58		* Maximum number of indices per face (polygon).
59		*/
60		const AI_MAX_FACE_INDICES = 0x7fff;
61
62		/**
63		* Maximum number of indices per face (polygon).
64		*/
65		const AI_MAX_BONE_WEIGHTS = 0x7fffffff;
66
67		/**
68		* Maximum number of vertices per mesh.
69		*/
70		const AI_MAX_VERTICES = 0x7fffffff;
71
72		/**
73		* Maximum number of faces per mesh.
74		*/
75		const AI_MAX_FACES = 0x7fffffff;
76
77		/**
78		* Supported number of vertex color sets per mesh.
79		*/
80		const AI_MAX_NUMBER_OF_COLOR_SETS = 0x4;
81
82		/**
83		* Supported number of texture coord sets (UV(W) channels) per mesh.
84		*/
85		const AI_MAX_NUMBER_OF_TEXTURECOORDS = 0x4;
86
87
88		/**
89		* A single face in a mesh, referring to multiple vertices.
90		*
91		* If <code>mNumIndices</code> is 3, we call the face <em>triangle</em>, for
92		* for <code>mNumIndices > 3</code> it's called <em>polygon</em>.
93		*
94		* <code>aiMesh.mPrimitiveTypes</code> can be queried to quickly examine
95		* which types of primitive are actually present in a mesh. The
96		* <code>aiProcess.SortByPType</code> flag post-processing step splits
97		* meshes containing different primitive types (e.g. lines and triangles) in
98		* several "clean" submeshes.
99		*
100		* Furthermore, there is a configuration option
101		* (<code>AI_CONFIG_PP_SBP_REMOVE</code>) to force <code>SortByPType</code>
102		* to completely remove specific kinds of primitives from the imported scene.
103		* In many cases you'll probably want to set this setting to
104		* <code>aiPrimitiveType.LINE \| aiPrimitiveType.POINT</code>. Together with
105		* the <code>aiProcess.Triangulate</code> flag you can then be sure that
106		* <code>mNumIndices</code> is always 3.
107		*/
108		struct aiFace {
109		/**
110		* Number of indices defining this face.
111		*
112		* The maximum value for this member is <code>AI_MAX_FACE_INDICES</code>.
113		*/
114		uint mNumIndices;
115
116		/**
117		* Array of the indicies defining the face.
118		*
119		* The size is given in <code>mNumIndices</code>.
120		*/
121		uint* mIndices;
122		}
123
124		/**
125		* A single influence of a bone on a vertex.
126		*/
127		struct aiVertexWeight {
128		/**
129		* Index of the vertex which is influenced by the bone.
130		*/
131		uint mVertexId;
132
133		/**
134		* The strength of the influence in the range <code>[0..1]</code>.
135		*
136		* The influence from all bones at one vertex sums up to 1.
137		*/
138		float mWeight;
139		}
140
141		/**
142		* A single bone of a mesh.
143		*
144		* A bone has a name by which it can be found in the frame hierarchy and by
145		* which it can be addressed by animations. In addition it has a number of
146		* influences on vertices.
147		*/
148		struct aiBone {
149		/**
150		* The name of the bone.
151		*/
152		aiString mName;
153
154		/**
155		* The number of vertices affected by this bone.
156		*
157		* The maximum value for this member is <code>AI_MAX_BONE_WEIGHTS</code>.
158		*/
159		uint mNumWeights;
160
161		/**
162		* The vertices affected by this bone.
163		*
164		* This array is <code>mNumWeights</code> entries in size.
165		*/
166		aiVertexWeight* mWeights;
167
168		/**
169		* Matrix that transforms from mesh space to bone space (in the bind
170		* pose).
171		*/
172		aiMatrix4x4 mOffsetMatrix;
173		}
174
175		/**
176		* Enumerates the types of geometric primitives supported by Assimp.
177		*
178		* See: <code>aiFace</code>, <code>aiProcess.SortByPType</code>,
179		* <code>aiProcess.Triangulate</code>,
180		* <code>AI_CONFIG_PP_SBP_REMOVE</code>.
181		*/
182		enum aiPrimitiveType : uint {
183		/** A point primitive.
184		*
185		* This is just a single vertex in the virtual world,
186		* <code>aiFace</code> contains just one index for such a primitive.
187		*/
188		POINT = 0x1,
189
190		/** A line primitive.
191		*
192		* This is a line defined through a start and an end position.
193		* <code>aiFace</code> contains exactly two indices for such a primitive.
194		*/
195		LINE = 0x2,
196
197		/** A triangular primitive.
198		*
199		* A triangle consists of three indices.
200		*/
201		TRIANGLE = 0x4,
202
203		/** A higher-level polygon with more than 3 edges.
204		*
205		* A triangle is a polygon, but in this context, polygon means
206		* "all polygons that are not triangles". The <code>Triangulate</code>
207		* post processing step is provided for your convinience, it splits all
208		* polygons in triangles (which are much easier to handle).
209		*/
210		POLYGON = 0x8
211		}
212
213		// Note: The AI_PRIMITIVE_TYPE_FOR_N_INDICES(n) macro from the C headers is
214		// missing since there is probably not much use for it when just reading
215		// scene files.
216
217		/**
218		* NOT CURRENTLY IN USE. An AnimMesh is an attachment to an #aiMesh stores
219		* per-vertex animations for a particular frame.
220		*
221		* You may think of an <code>aiAnimMesh</code> as a `patch` for the host
222		* mesh, which replaces only certain vertex data streams at a particular
223		* time.
224		*
225		* Each mesh stores n attached attached meshes (<code>aiMesh.mAnimMeshes</code>).
226		* The actual relationship between the time line and anim meshes is
227		* established by #aiMeshAnim, which references singular mesh attachments
228		* by their ID and binds them to a time offset.
229		*/
230		struct aiAnimMesh {
231		/**
232		* Replacement for aiMesh.mVertices.
233		*
234		* If this array is non-null, it must contain mNumVertices entries.
235		* The corresponding array in the host mesh must be non-null as well -
236		* animation meshes may neither add or nor remove vertex components (if
237		* a replacement array is NULL and the corresponding source array is
238		* not, the source data is taken instead).
239		*/
240		aiVector3D* mVertices;
241
242		/// Replacement for <code>aiMesh.mNormals</code>.
243		aiVector3D* mNormals;
244
245		/// Replacement for <code>aiMesh.mTangents</code>.
246		aiVector3D* mTangents;
247
248		/// Replacement for <code>aiMesh.mBitangents</code>.
249		aiVector3D* mBitangents;
250
251		/// Replacement for <code>aiMesh.mColors</code>.
252		aiColor4D* mColors[ AI_MAX_NUMBER_OF_COLOR_SETS ];
253
254		/// Replacement for <code>aiMesh.mTextureCoords</code>.
255		aiVector3D* mTextureCoords[ AI_MAX_NUMBER_OF_TEXTURECOORDS ];
256
257		/**
258		* The number of vertices in the aiAnimMesh, and thus the length of all
259		* the member arrays.
260		*
261		* This has always the same value as the mNumVertices property in the
262		* corresponding aiMesh. It is duplicated here merely to make the length
263		* of the member arrays accessible even if the aiMesh is not known, e.g.
264		* from language bindings.
265		*/
266		uint mNumVertices;
267		}
268
269		/**
270		* A mesh represents a geometry or model with a single material.
271		*
272		* It usually consists of a number of vertices and a series
273		* primitives/faces referencing the vertices. In addition there might be a
274		* series of bones, each of them addressing a number of vertices with a
275		* certain weight. Vertex data is presented in channels with each channel
276		* containing a single per-vertex information such as a set of texture
277		* coords or a normal vector. If a data pointer is non-null, the
278		* corresponding data stream is present.
279		*
280		* A mesh uses only a single material which is referenced by a material ID.
281		*
282		* Note: The <code>mPositions</code> member is usually not optional.
283		* However, vertex positions <em>could</em> be missing if the
284		* <code>AI_SCENE_FLAGS_INCOMPLETE</code> flag is set in
285		* <code>aiScene.mFlags</code>.
286		*/
287		struct aiMesh {
288		/**
289		* Bitwise combination of <code>aiPrimitiveType</code> members.
290		*
291		* This specifies which types of primitives are present in the mesh.
292		* The <code>SortByPrimitiveType</code> post processing step can be used
293		* to make sure the output meshes consist of one primitive type each.
294		*/
295		uint mPrimitiveTypes;
296
297		/**
298		* The number of vertices in this mesh.
299		*
300		* This is also the size of all of the per-vertex data arrays. The
301		* maximum value for this member is <code>AI_MAX_VERTICES</code>.
302		*/
303		uint mNumVertices;
304
305		/**
306		* The number of primitives (triangles, polygons, lines) in this mesh.
307		*
308		* This is also the size of the <code>mFaces</code> array. The maximum
309		* value for this member is <code>AI_MAX_FACES</code>.
310		*/
311		uint mNumFaces;
312
313		/**
314		* Vertex positions.
315		*
316		* This array is always present in a mesh. The array is
317		* <code>mNumVertices</code> in size.
318		*/
319		aiVector3D* mVertices;
320
321		/**
322		* Vertex normals.
323		*
324		* The array contains normalized vectors, null if not present.
325		* The array is <code>mNumVertices</code> in size.
326		*
327		* Normals are undefined for point and line primitives. A mesh
328		* consisting of points and lines only may not have normal vectors.
329		* Meshes with mixed primitive types (i.e. lines and triangles) may have
330		* normals, but the normals for vertices that are only referenced by
331		* point or line primitives are undefined and set to <code>QNAN</code>.
332		*
333		* Note: Normal vectors computed by Assimp are always unit-length.
334		* However, this needn't apply for normals that have been taken
335		* directly from the model file.
336		*/
337		aiVector3D* mNormals;
338
339		/**
340		* Vertex tangents.
341		*
342		* The tangent of a vertex points in the direction of the positive x
343		* texture axis. The array contains normalized vectors, null if
344		* not present. The array is <code>mNumVertices</code> in size.
345		*
346		* A mesh consisting of points and lines only may not have normal
347		* vectors. Meshes with mixed primitive types (i.e. lines and triangles)
348		* may have normals, but the normals for vertices that are only
349		* referenced by point or line primitives are undefined and set to
350		* <code>QNAN</code>.
351		*
352		* Note: If the mesh contains tangents, it automatically also contains
353		* bitangents (the bitangent is just the cross product of tangent and
354		* normal vectors).
355		*/
356		aiVector3D* mTangents;
357
358		/**
359		* Vertex bitangents.
360		*
361		* The bitangent of a vertex points in the direction of the positive Y
362		* texture axis. The array contains normalized vectors, null if not
363		* present. The array is <code>mNumVertices</code> in size.
364		*
365		* Note: If the mesh contains tangents, it automatically also contains
366		* bitangents.
367		*/
368		aiVector3D* mBitangents;
369
370		/**
371		* Vertex color sets.
372		*
373		* A mesh may contain 0 to <code>AI_MAX_NUMBER_OF_COLOR_SETS</code>
374		* vertex colors per vertex. null if not present.
375		*
376		* Each array is <code>mNumVertices</code> in size if present.
377		*/
378		aiColor4D* mColors[ AI_MAX_NUMBER_OF_COLOR_SETS ];
379
380		/**
381		* Vertex texture coords, also known as UV channels.
382		* A mesh may contain 0 to <code>AI_MAX_NUMBER_OF_TEXTURECOORDS</code>
383		* per vertex. null if not present.
384		*
385		* Each array is <code>mNumVertices</code> in size.
386		*/
387		aiVector3D* mTextureCoords[ AI_MAX_NUMBER_OF_TEXTURECOORDS ];
388
389		/**
390		* Specifies the number of components for a given UV channel.
391		*
392		* Up to three channels are supported (UVW, for accessing volume or cube
393		* maps). If the value is 2 for a given channel <code>n</code>, the
394		* component <code>p.z</code> of <code>mTextureCoords[n][p]</code> is set
395		* to 0. If the value is 1 for a given channel, <code>p.y</code> is set
396		* to 0, too. If this value is 0, 2 should be assumed.
397		*
398		* Note: 4D coords are not supported.
399		*/
400		uint mNumUVComponents[ AI_MAX_NUMBER_OF_TEXTURECOORDS ];
401
402		/**
403		* The faces the mesh is contstructed from.
404		*
405		* Each face referrs to a number of vertices by their indices.
406		* This array is always present in a mesh, its size is given
407		* in <code>mNumFaces</code>. If the
408		* <code>AI_SCENE_FLAGS_NON_VERBOSE_FORMAT</code> is <em>not</em> set,
409		* each face references an unique set of vertices.
410		*/
411		aiFace* mFaces;
412
413		/**
414		* The number of bones this mesh contains.
415		*
416		* Can be 0, in which case the <code>mBones</code> array is null.
417		*/
418		uint mNumBones;
419
420		/**
421		* The bones of this mesh.
422		*
423		* A bone consists of a name by which it can be found in the frame
424		* hierarchy and a set of vertex weights.
425		*/
426		aiBone** mBones;
427
428		/**
429		* The material used by this mesh.
430		*
431		* A mesh does use only a single material. If an imported model uses
432		* multiple materials, the import splits up the mesh. Use this value as
433		* index into the scene's material list.
434		*/
435		uint mMaterialIndex;
436
437		/**
438		* Name of the mesh.
439		*
440		* Meshes can be named, but this is not a requirement and leaving this
441		* field empty is totally fine.
442		*
443		* There are mainly three uses for mesh names:
444		* - Some formats name nodes and meshes independently.
445		* - Importers tend to split meshes up to meet the one-material-per-mesh
446		* requirement. Assigning the same (dummy) name to each of the result
447		* meshes aids the caller at recovering the original mesh partitioning.
448		* - Vertex animations refer to meshes by their names.
449		*/
450		aiString mName;
451
452		/// NOT CURRENTLY IN USE. The number of attachment meshes.
453		uint mNumAnimMeshes;
454
455		/**
456		* NOT CURRENTLY IN USE. Attachment meshes for this mesh, for vertex-
457		* based animation.
458		*
459		* Attachment meshes carry replacement data for some of the mesh's
460		* vertex components (usually positions, normals).
461		*/
462		aiAnimMesh** mAnimMeshes;
463		}
464		}

-597

~~port/unmaintained/dAssimp/assimp/postprocess.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Definitions for import post processing steps.
43		*/
44		module assimp.postprocess;
45
46		extern ( C ) {
47		/**
48		* Defines the flags for all possible post processing steps.
49		*
50		* See: <code>aiImportFile</code>, <code>aiImportFileEx</code>
51		*/
52		enum aiPostProcessSteps {
53		/**
54		* Calculates the tangents and bitangents for the imported meshes.
55		*
56		* Does nothing if a mesh does not have normals. You might want this post
57		* processing step to be executed if you plan to use tangent space
58		* calculations such as normal mapping applied to the meshes. There is a
59		* config setting, <code>AI_CONFIG_PP_CT_MAX_SMOOTHING_ANGLE</code>,
60		* which allows you to specify a maximum smoothing angle for the
61		* algorithm. However, usually you will want to use the default value.
62		*/
63		CalcTangentSpace = 0x1,
64
65		/**
66		* Identifies and joins identical vertex data sets within all imported
67		* meshes.
68		*
69		* After this step is run each mesh does contain only unique vertices
70		* anymore, so a vertex is possibly used by multiple faces. You usually
71		* want to use this post processing step. If your application deals with
72		* indexed geometry, this step is compulsory or you will just waste
73		* rendering time. <em>If this flag is not specified</em>, no vertices
74		* are referenced by more than one face and <em>no index buffer is
75		* required</em> for rendering.
76		*/
77		JoinIdenticalVertices = 0x2,
78
79		/**
80		* Converts all the imported data to a left-handed coordinate space.
81		*
82		* By default the data is returned in a right-handed coordinate space
83		* which for example OpenGL prefers. In this space, +X points to the
84		* right, +Z points towards the viewer and and +Y points upwards. In the
85		* DirectX coordinate space +X points to the right, +Y points upwards and
86		* +Z points away from the viewer.
87		*
88		* You will probably want to consider this flag if you use Direct3D for
89		* rendering. The <code>ConvertToLeftHanded</code> flag supersedes this
90		* setting and bundles all conversions typically required for D3D-based
91		* applications.
92		*/
93		MakeLeftHanded = 0x4,
94
95		/**
96		* Triangulates all faces of all meshes.
97		*
98		* By default the imported mesh data might contain faces with more than 3
99		* indices. For rendering you'll usually want all faces to be triangles.
100		* This post processing step splits up all higher faces to triangles.
101		* Line and point primitives are <em>not</em> modified!.
102		*
103		* If you want »triangles only« with no other kinds of primitives,
104		* specify both <code>Triangulate</code> and <code>SortByPType</code> and
105		* ignore all point and line meshes when you process Assimp's output.
106		*/
107		Triangulate = 0x8,
108
109		/**
110		* Removes some parts of the data structure (animations, materials, light
111		* sources, cameras, textures, vertex components).
112		*
113		* The components to be removed are specified in a separate configuration
114		* option, <code>AI_CONFIG_PP_RVC_FLAGS</code>. This is quite useful if
115		* you don't need all parts of the output structure. Especially vertex
116		* colors are rarely used today.
117		*
118		* Calling this step to remove unrequired stuff from the pipeline as
119		* early as possible results in an increased performance and a better
120		* optimized output data structure.
121		*
122		* This step is also useful if you want to force Assimp to recompute
123		* normals or tangents since the corresponding steps don't recompute them
124		* if they have already been loaded from the source asset.
125		*
126		* This flag is a poor one, mainly because its purpose is usually
127		* misunderstood. Consider the following case: a 3d model has been exported
128		* from a CAD app, it has per-face vertex colors. Because of the vertex
129		* colors (which are not even used by most apps),
130		* <code>JoinIdenticalVertices</code> cannot join vertices at the same
131		* position. By using this step, unneeded components are excluded as
132		* early as possible thus opening more room for internal optimzations.
133		*/
134		RemoveComponent = 0x10,
135
136		/**
137		* Generates normals for all faces of all meshes.
138		*
139		* This is ignored if normals are already there at the time where this
140		* flag is evaluated. Model importers try to load them from the source
141		* file, so they are usually already there. Face normals are shared
142		* between all points of a single face, so a single point can have
143		* multiple normals, which, in other words, enforces the library to
144		* duplicate vertices in some cases. <code>JoinIdenticalVertices</code>
145		* is <em>useless</em> then.
146		*
147		* This flag may not be specified together with
148		* <code>GenSmoothNormals</code>.
149		*/
150		GenNormals = 0x20,
151
152		/**
153		* Generates smooth normals for all vertices in the mesh.
154		*
155		* This is ignored if normals are already there at the time where this
156		* flag is evaluated. Model importers try to load them from the source file, so
157		* they are usually already there.
158		*
159		* There is a configuration option,
160		* <code>AI_CONFIG_PP_GSN_MAX_SMOOTHING_ANGLE</code> which allows you to
161		* specify an angle maximum for the normal smoothing algorithm. Normals
162		* exceeding this limit are not smoothed, resulting in a »hard« seam
163		* between two faces. Using a decent angle here (e.g. 80°) results in
164		* very good visual appearance.
165		*/
166		GenSmoothNormals = 0x40,
167
168		/**
169		* Splits large meshes into smaller submeshes.
170		*
171		* This is quite useful for realtime rendering where the number of triangles
172		* which can be maximally processed in a single draw-call is usually limited
173		* by the video driver/hardware. The maximum vertex buffer is usually limited,
174		* too. Both requirements can be met with this step: you may specify both a
175		* triangle and vertex limit for a single mesh.
176		*
177		* The split limits can (and should!) be set through the
178		* <code>AI_CONFIG_PP_SLM_VERTEX_LIMIT</code> and
179		* <code>AI_CONFIG_PP_SLM_TRIANGLE_LIMIT</code> settings. The default
180		* values are <code>AI_SLM_DEFAULT_MAX_VERTICES</code> and
181		* <code>AI_SLM_DEFAULT_MAX_TRIANGLES</code>.
182		*
183		* Note that splitting is generally a time-consuming task, but not if
184		* there's nothing to split. The use of this step is recommended for most
185		* users.
186		*/
187		SplitLargeMeshes = 0x80,
188
189		/**
190		* Removes the node graph and pre-transforms all vertices with the local
191		* transformation matrices of their nodes.
192		*
193		* The output scene does still contain nodes, however, there is only a
194		* root node with children, each one referencing only one mesh, each
195		* mesh referencing one material. For rendering, you can simply render
196		* all meshes in order, you don't need to pay attention to local
197		* transformations and the node hierarchy. Animations are removed during
198		* this step.
199		*
200		* This step is intended for applications that have no scenegraph.
201		*
202		* The step <em>can</em> cause some problems: if e.g. a mesh of the asset
203		* contains normals and another, using the same material index, does not,
204		* they will be brought together, but the first meshes's part of the
205		* normal list is zeroed. However, these artifacts are rare.
206		*
207		* Note: The <code>AI_CONFIG_PP_PTV_NORMALIZE</code> configuration
208		* property can be set to normalize the scene's spatial dimension
209		* to the -1...1 range.
210		*/
211		PreTransformVertices = 0x100,
212
213		/**
214		* Limits the number of bones simultaneously affecting a single vertex to
215		* a maximum value.
216		*
217		* If any vertex is affected by more than that number of bones, the least
218		* important vertex weights are removed and the remaining vertex weights
219		* are renormalized so that the weights still sum up to 1.
220		*
221		* The default bone weight limit is 4 (<code>AI_LMW_MAX_WEIGHTS</code>),
222		* but you can use the <code>#AI_CONFIG_PP_LBW_MAX_WEIGHTS</code> setting
223		* to supply your own limit to the post processing step.
224		*
225		* If you intend to perform the skinning in hardware, this post processing
226		* step might be of interest for you.
227		*/
228		LimitBoneWeights = 0x200,
229
230		/**
231		* Validates the imported scene data structure.
232		*
233		* This makes sure that all indices are valid, all animations and
234		* bones are linked correctly, all material references are correct, etc.
235		*
236		* It is recommended to capture Assimp's log output if you use this flag,
237		* so you can easily find ot what's actually wrong if a file fails the
238		* validation. The validator is quite rude and will find <em>all</em>
239		* inconsistencies in the data structure.
240		*
241		* Plugin developers are recommended to use it to debug their loaders.
242		*
243		* There are two types of validation failures:
244		* <ul>
245		* <li>Error: There's something wrong with the imported data. Further
246		* postprocessing is not possible and the data is not usable at all.
247		* The import fails, see <code>aiGetErrorString()</code> for the
248		* error message.</li>
249		* <li>Warning: There are some minor issues (e.g. 1000000 animation
250		* keyframes with the same time), but further postprocessing and use
251		* of the data structure is still safe. Warning details are written
252		* to the log file, <code>AI_SCENE_FLAGS_VALIDATION_WARNING</code> is
253		* set in <code>aiScene::mFlags</code></li>
254		* </ul>
255		*
256		* This post-processing step is not time-consuming. It's use is not
257		* compulsory, but recommended.
258		*/
259		ValidateDataStructure = 0x400,
260
261		/**
262		* Reorders triangles for better vertex cache locality.
263		*
264		* The step tries to improve the ACMR (average post-transform vertex cache
265		* miss ratio) for all meshes. The implementation runs in O(n) and is
266		* roughly based on the 'tipsify' algorithm (see
267		* <tt>http://www.cs.princeton.edu/gfx/pubs/Sander_2007_%3ETR/tipsy.pdf</tt>).
268		*
269		* If you intend to render huge models in hardware, this step might
270		* be of interest for you. The <code>AI_CONFIG_PP_ICL_PTCACHE_SIZE</code>
271		* config setting can be used to fine-tune the cache optimization.
272		*/
273		ImproveCacheLocality = 0x800,
274
275		/**
276		* Searches for redundant/unreferenced materials and removes them.
277		*
278		* This is especially useful in combination with the
279		* <code>PretransformVertices</code> and <code>OptimizeMeshes</code>
280		* flags. Both join small meshes with equal characteristics, but they
281		* can't do their work if two meshes have different materials. Because
282		* several material settings are always lost during Assimp's import
283		* filters, (and because many exporters don't check for redundant
284		* materials), huge models often have materials which are are defined
285		* several times with exactly the same settings.
286		*
287		* Several material settings not contributing to the final appearance of
288		* a surface are ignored in all comparisons; the material name is one of
289		* them. So, if you are passing additional information through the
290		* content pipeline (probably using »magic« material names), don't
291		* specify this flag. Alternatively take a look at the
292		* <code>AI_CONFIG_PP_RRM_EXCLUDE_LIST</code> setting.
293		*/
294		RemoveRedundantMaterials = 0x1000,
295
296		/**
297		* This step tries to determine which meshes have normal vectors that are
298		* acing inwards.
299		*
300		* The algorithm is simple but effective: The bounding box of all
301		* vertices and their normals is compared against the volume of the
302		* bounding box of all vertices without their normals. This works well
303		* for most objects, problems might occur with planar surfaces. However,
304		* the step tries to filter such cases.
305		*
306		* The step inverts all in-facing normals. Generally it is recommended to
307		* enable this step, although the result is not always correct.
308		*/
309		FixInfacingNormals = 0x2000,
310
311		/**
312		* This step splits meshes with more than one primitive type in
313		* homogeneous submeshes.
314		*
315		* The step is executed after the triangulation step. After the step
316		* returns, just one bit is set in <code>aiMesh.mPrimitiveTypes</code>.
317		* This is especially useful for real-time rendering where point and line
318		* primitives are often ignored or rendered separately.
319		*
320		* You can use the <code>AI_CONFIG_PP_SBP_REMOVE</code> option to
321		* specify which primitive types you need. This can be used to easily
322		* exclude lines and points, which are rarely used, from the import.
323		*/
324		SortByPType = 0x8000,
325
326		/**
327		* This step searches all meshes for degenerated primitives and converts
328		* them to proper lines or points.
329		*
330		* A face is »degenerated« if one or more of its points are identical.
331		* To have the degenerated stuff not only detected and collapsed but also
332		* removed, try one of the following procedures:
333		*
334		* <b>1.</b> (if you support lines and points for rendering but don't
335		* want the degenerates)
336		* <ul>
337		* <li>Specify the <code>FindDegenerates</code> flag.</li>
338		* <li>Set the <code>AI_CONFIG_PP_FD_REMOVE</code> option to 1. This will
339		* cause the step to remove degenerated triangles from the import
340		* as soon as they're detected. They won't pass any further
341		* pipeline steps.</li>
342		* </ul>
343		*
344		* <b>2.</b>(if you don't support lines and points at all ...)
345		* <ul>
346		* <li>Specify the <code>FindDegenerates</code> flag.</li>
347		* <li>Specify the <code>SortByPType</code> flag. This moves line and
348		* point primitives to separate meshes.</li>
349		* <li>Set the <code>AI_CONFIG_PP_SBP_REMOVE</codet> option to
350		* <code>aiPrimitiveType_POINTS \| aiPrimitiveType_LINES</code>
351		* to cause SortByPType to reject point and line meshes from the
352		* scene.</li>
353		* </ul>
354		*
355		* Note: Degenerated polygons are not necessarily bad and that's why
356		* they're not removed by default. There are several file formats
357		* which don't support lines or points. Some exporters bypass the
358		* format specification and write them as degenerated triangle
359		* instead.
360		*/
361		FindDegenerates = 0x10000,
362
363		/**
364		* This step searches all meshes for invalid data, such as zeroed normal
365		* vectors or invalid UV coords and removes/fixes them. This is intended
366		* to get rid of some common exporter errors.
367		*
368		* This is especially useful for normals. If they are invalid, and the
369		* step recognizes this, they will be removed and can later be
370		* recomputed, e.g. by the <code>GenSmoothNormals</code> step.
371		*
372		* The step will also remove meshes that are infinitely small and reduce
373		* animation tracks consisting of hundreds if redundant keys to a single
374		* key. The <code>AI_CONFIG_PP_FID_ANIM_ACCURACY</code> config property
375		* decides the accuracy of the check for duplicate animation tracks.
376		*/
377		FindInvalidData = 0x20000,
378
379		/**
380		* This step converts non-UV mappings (such as spherical or cylindrical
381		* mapping) to proper texture coordinate channels.
382		*
383		* Most applications will support UV mapping only, so you will probably
384		* want to specify this step in every case. Note tha Assimp is not always
385		* able to match the original mapping implementation of the 3d app which
386		* produced a model perfectly. It's always better to let the father app
387		* compute the UV channels, at least 3ds max, maja, blender, lightwave,
388		* modo, ... are able to achieve this.
389		*
390		* Note: If this step is not requested, you'll need to process the
391		* <code>AI_MATKEY_MAPPING</code> material property in order to
392		* display all assets properly.
393		*/
394		GenUVCoords = 0x40000,
395
396		/**
397		* This step applies per-texture UV transformations and bakes them to
398		* stand-alone vtexture coordinate channelss.
399		*
400		* UV transformations are specified per-texture – see the
401		* <code>AI_MATKEY_UVTRANSFORM</code> material key for more information.
402		* This step processes all textures with transformed input UV coordinates
403		* and generates new (pretransformed) UV channel which replace the old
404		* channel. Most applications won't support UV transformations, so you
405		* will probably want to specify this step.
406		*
407		* Note: UV transformations are usually implemented in realtime apps by
408		* transforming texture coordinates at vertex shader stage with a 3x3
409		* (homogenous) transformation matrix.
410		*/
411		TransformUVCoords = 0x80000,
412
413		/**
414		* This step searches for duplicate meshes and replaces duplicates with
415		* references to the first mesh.
416		*
417		* This step takes a while, don't use it if you have no time. Its main
418		* purpose is to workaround the limitation that many export file formats
419		* don't support instanced meshes, so exporters need to duplicate meshes.
420		* This step removes the duplicates again. Please note that Assimp does
421		* currently not support per-node material assignment to meshes, which
422		* means that identical meshes with differnent materials are currently
423		* <em>not</em> joined, although this is planned for future versions.
424		*/
425		FindInstances = 0x100000,
426
427		/**
428		* A postprocessing step to reduce the number of meshes.
429		*
430		* In fact, it will reduce the number of drawcalls.
431		*
432		* This is a very effective optimization and is recommended to be used
433		* together with <code>OptimizeGraph</code>, if possible. The flag is
434		* fully compatible with both <code>SplitLargeMeshes</code> and
435		* <code>SortByPType</code>.
436		*/
437		OptimizeMeshes = 0x200000,
438
439		/**
440		* A postprocessing step to optimize the scene hierarchy.
441		*
442		* Nodes with no animations, bones, lights or cameras assigned are
443		* collapsed and joined.
444		*
445		* Node names can be lost during this step. If you use special tag nodes
446		* to pass additional information through your content pipeline, use the
447		* <code>AI_CONFIG_PP_OG_EXCLUDE_LIST</code> setting to specify a list of
448		* node names you want to be kept. Nodes matching one of the names in
449		* this list won't be touched or modified.
450		*
451		* Use this flag with caution. Most simple files will be collapsed to a
452		* single node, complex hierarchies are usually completely lost. That's
453		* note the right choice for editor environments, but probably a very
454		* effective optimization if you just want to get the model data, convert
455		* it to your own format and render it as fast as possible.
456		*
457		* This flag is designed to be used with <code>OptimizeMeshes</code> for
458		* best results.
459		*
460		* Note: »Crappy« scenes with thousands of extremely small meshes packed
461		* in deeply nested nodes exist for almost all file formats.
462		* <code>OptimizeMeshes</code> in combination with
463		* <code>OptimizeGraph</code> usually fixes them all and makes them
464		* renderable.
465		*/
466		OptimizeGraph = 0x400000,
467
468		/** This step flips all UV coordinates along the y-axis and adjusts
469		* material settings and bitangents accordingly.
470		*
471		* Output UV coordinate system:
472		* <pre> 0y\|0y ---------- 1x\|0y
473		* \| \|
474		* \| \|
475		* \| \|
476		* 0x\|1y ---------- 1x\|1y</pre>
477		* You'll probably want to consider this flag if you use Direct3D for
478		* rendering. The <code>AI_PROCESS_CONVERT_TO_LEFT_HANDED</code> flag
479		* supersedes this setting and bundles all conversions typically required
480		* for D3D-based applications.
481		*/
482		FlipUVs = 0x800000,
483
484		/**
485		* This step adjusts the output face winding order to be clockwise.
486		*
487		* The default face winding order is counter clockwise.
488		*
489		* Output face order:
490		* <pre> x2
491		*
492		* x0
493		* x1</pre>
494		*/
495		FlipWindingOrder = 0x1000000
496		}
497
498		/**
499		* Abbrevation for convenience.
500		*/
501		alias aiPostProcessSteps aiProcess;
502
503		/**
504		* Shortcut flag for Direct3D-based applications.
505		*
506		* Combines the <code>MakeLeftHanded</code>, <code>FlipUVs</code> and
507		* <code>FlipWindingOrder</code> flags. The output data matches Direct3D's
508		* conventions: left-handed geometry, upper-left origin for UV coordinates
509		* and clockwise face order, suitable for CCW culling.
510		*/
511		const aiPostProcessSteps AI_PROCESS_CONVERT_TO_LEFT_HANDED =
512		aiProcess.MakeLeftHanded \|
513		aiProcess.FlipUVs \|
514		aiProcess.FlipWindingOrder;
515
516		/**
517		* Default postprocess configuration optimizing the data for real-time rendering.
518		*
519		* Applications would want to use this preset to load models on end-user
520		* PCs, maybe for direct use in game.
521		*
522		* If you're using DirectX, don't forget to combine this value with
523		* the <code>ConvertToLeftHanded</code> step. If you don't support UV
524		* transformations in your application, apply the
525		* <code>TransformUVCoords</code> step, too.
526		*
527		* Note: Please take the time to read the doc for the steps enabled by this
528		* preset. Some of them offer further configurable properties, some of
529		* them might not be of use for you so it might be better to not specify
530		* them.
531		*/
532		const aiPostProcessSteps AI_PROCESS_PRESET_TARGET_REALTIME_FAST =
533		aiProcess.CalcTangentSpace \|
534		aiProcess.GenNormals \|
535		aiProcess.JoinIdenticalVertices \|
536		aiProcess.Triangulate \|
537		aiProcess.GenUVCoords \|
538		aiProcess.SortByPType;
539
540		/**
541		* Default postprocess configuration optimizing the data for real-time
542		* rendering.
543		*
544		* Unlike <code>AI_PROCESS_PRESET_TARGET_REALTIME_FAST</code>, this
545		* configuration performs some extra optimizations to improve rendering
546		* speed and to minimize memory usage. It could be a good choice for a
547		* level editor environment where import speed is not so important.
548		*
549		* If you're using DirectX, don't forget to combine this value with
550		* the <code>ConvertToLeftHanded</code> step. If you don't support UV
551		* transformations in your application, apply the
552		* <code>TransformUVCoords</code> step, too.
553		*
554		* Note: Please take the time to read the doc for the steps enabled by this
555		* preset. Some of them offer further configurable properties, some of
556		* them might not be of use for you so it might be better to not specify
557		* them.
558		*/
559		const aiPostProcessSteps AI_PROCESS_PRESET_TARGET_REALTIME_QUALITY =
560		aiProcess.CalcTangentSpace \|
561		aiProcess.GenSmoothNormals \|
562		aiProcess.JoinIdenticalVertices \|
563		aiProcess.ImproveCacheLocality \|
564		aiProcess.LimitBoneWeights \|
565		aiProcess.RemoveRedundantMaterials \|
566		aiProcess.SplitLargeMeshes \|
567		aiProcess.Triangulate \|
568		aiProcess.GenUVCoords \|
569		aiProcess.SortByPType \|
570		aiProcess.FindDegenerates \|
571		aiProcess.FindInvalidData;
572
573		/**
574		* Default postprocess configuration optimizing the data for real-time
575		* rendering.
576		*
577		* This preset enables almost every optimization step to achieve perfectly
578		* optimized data. It's your choice for level editor environments where
579		* import speed is not important.
580		*
581		* If you're using DirectX, don't forget to combine this value with
582		* the <code>ConvertToLeftHanded</code> step. If you don't support UV
583		* transformations in your application, apply the
584		* <code>TransformUVCoords</code> step, too.
585		*
586		* Note: Please take the time to read the doc for the steps enabled by this
587		* preset. Some of them offer further configurable properties, some of
588		* them might not be of use for you so it might be better to not specify
589		* them.
590		*/
591		const aiPostProcessSteps AI_PROCESS_PRESET_TARGET_REALTIME_MAX_QUALITY =
592		AI_PROCESS_PRESET_TARGET_REALTIME_QUALITY \|
593		aiProcess.FindInstances \|
594		aiProcess.ValidateDataStructure \|
595		aiProcess.OptimizeMeshes;
596		}

-306

~~port/unmaintained/dAssimp/assimp/scene.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Contains the data structures which store the hierarchy fo the imported data.
43		*/
44		module assimp.scene;
45
46		import assimp.animation;
47		import assimp.camera;
48		import assimp.light;
49		import assimp.math;
50		import assimp.mesh;
51		import assimp.material;
52		import assimp.texture;
53		import assimp.types;
54
55		extern ( C ) {
56		/**
57		* A node in the imported hierarchy.
58		*
59		* Each node has name, a parent node (except for the root node), a
60		* transformation relative to its parent and possibly several child nodes.
61		* Simple file formats don't support hierarchical structures, for these
62		* formats the imported scene does consist of only a single root node with
63		* no childs.
64		*/
65		struct aiNode {
66		/**
67		* The name of the node.
68		*
69		* The name might be empty (length of zero) but all nodes which need to
70		* be accessed afterwards by bones or animations are usually named.
71		* Multiple nodes may have the same name, but nodes which are accessed
72		* by bones (see <code>aiBone</code> and <code>aiMesh.mBones</code>)
73		* <em>must</em> be unique.
74		*
75		* Cameras and lights are assigned to a specific node name – if there are
76		* multiple nodes with this name, they are assigned to each of them.
77		*
78		* There are no limitations regarding the characters contained in this
79		* string. You should be able to handle stuff like whitespace, tabs,
80		* linefeeds, quotation marks, ampersands, …
81		*/
82		aiString mName;
83
84		/**
85		* The transformation relative to the node's parent.
86		*/
87		aiMatrix4x4 mTransformation;
88
89		/**
90		* Parent node.
91		*
92		* null if this node is the root node.
93		*/
94		aiNode* mParent;
95
96		/**
97		* The number of child nodes of this node.
98		*/
99		uint mNumChildren;
100
101		/**
102		* The child nodes of this node.
103		*
104		* null if <code>mNumChildren</code> is 0.
105		*/
106		aiNode** mChildren;
107
108		/**
109		* The number of meshes of this node.
110		*/
111		int mNumMeshes;
112
113		/**
114		* The meshes of this node.
115		*
116		* Each entry is an index for <code>aiScene.mMeshes</code>.
117		*/
118		uint* mMeshes;
119		}
120
121		/**
122		* Flags which are combinated in <code>aiScene.mFlags</code> to store
123		* auxiliary information about the imported scene.
124		*/
125		enum aiSceneFlags : uint {
126		/**
127		* Specifies that the scene data structure that was imported is not
128		* complete.
129		*
130		* This flag bypasses some internal validations and allows the import of
131		* animation skeletons, material libraries or camera animation paths
132		* using Assimp. Most applications won't support such data.
133		*/
134		INCOMPLETE = 0x1,
135
136		/**
137		* This flag is set by the validation post-processing step
138		* (<code>aiProcess.ValidateDS</code>) if the validation was successful.
139		*
140		* In a validated scene you can be sure that any cross references in the
141		* data structure (e.g. vertex indices) are valid.
142		*/
143		VALIDATED = 0x2,
144
145		/**
146		* This flag is set by the validation post-processing step
147		* (<code>aiProcess.ValidateDS</code>) if the validation is successful
148		* but some issues have been found.
149		*
150		* This can for example mean that a texture that does not exist is
151		* referenced by a material or that the bone weights for a vertex don't
152		* sum to 1. In most cases you should still be able to use the import.
153		*
154		* This flag could be useful for applications which don't capture
155		* Assimp's log output.
156		*/
157		VALIDATION_WARNING = 0x4,
158
159		/**
160		* This flag is currently only set by the
161		* <code>aiProcess.JoinIdenticalVertices</code> post-processing step. It
162		* indicates that the vertices of the output meshes aren't in the
163		* internal verbose format anymore. In the verbose format all vertices
164		* are unique, no vertex is ever referenced by more than one face.
165		*/
166		NON_VERBOSE_FORMAT = 0x8,
167
168		/**
169		* Denotes pure height-map terrain data. Pure terrains usually consist of
170		* quads, sometimes triangles, in a regular grid. The x,y coordinates of
171		* all vertex positions refer to the x,y coordinates on the terrain
172		* height map, the z-axis stores the elevation at a specific point.
173		*
174		* TER (Terragen) and HMP (3D Game Studio) are height map formats.
175		*
176		* Note: Assimp is probably not the best choice for loading <em>huge</em>
177		* terrains – fully triangulated data takes extremely much storage
178		* space and should be avoided as long as possible (typically you will
179		* perform the triangulation when you actually need to render it).
180		*/
181		FLAGS_TERRAIN = 0x10
182		}
183
184		/**
185		* The root structure of the imported data.
186		*
187		* Everything that was imported from the given file can be accessed from here.
188		* Objects of this class are generally maintained and owned by Assimp, not
189		* by the caller. You shouldn't want to instance it, nor should you ever try to
190		* delete a given scene on your own.
191		*/
192		struct aiScene {
193		/**
194		* Any combination of the <code>aiSceneFlags</code>. By default, this
195		* value is 0, no flags are set.
196		*
197		* Most applications will want to reject all scenes with the
198		* <code>aiSceneFlags.INCOMPLETE</code> bit set.
199		*/
200		uint mFlags;
201
202		/**
203		* The root node of the hierarchy.
204		*
205		* There will always be at least the root node if the import was
206		* successful (and no special flags have been set). Presence of further
207		* nodes depends on the format and contents of the imported file.
208		*/
209		aiNode* mRootNode;
210
211		/**
212		* The number of meshes in the scene.
213		*/
214		uint mNumMeshes;
215
216		/**
217		* The array of meshes.
218		*
219		* Use the indices given in the <code>aiNode</code> structure to access
220		* this array. The array is <code>mNumMeshes</code> in size.
221		*
222		* If the <code>aiSceneFlags.INCOMPLETE</code> flag is not set, there
223		* will always be at least one mesh.
224		*/
225		aiMesh** mMeshes;
226
227		/**
228		* The number of materials in the scene.
229		*/
230		uint mNumMaterials;
231
232		/**
233		* The array of meshes.
234		*
235		* Use the indices given in the <code>aiMesh</code> structure to access
236		* this array. The array is <code>mNumMaterials</code> in size.
237		*
238		* If the <code>aiSceneFlags.INCOMPLETE</code> flag is not set, there
239		* will always be at least one material.
240		*/
241		aiMaterial** mMaterials;
242
243		/**
244		* The number of animations in the scene.
245		*/
246		uint mNumAnimations;
247
248		/**
249		* The array of animations.
250		*
251		* All animations imported from the given file are listed here. The array
252		* is <code>mNumAnimations</code> in size.
253		*/
254		aiAnimation** mAnimations;
255
256		/**
257		* The number of textures embedded into the file.
258		*/
259		uint mNumTextures;
260
261		/**
262		* The array of embedded textures.
263		*
264		* Not many file formats embed their textures into the file. An example
265		* is Quake's <code>MDL</code> format (which is also used by some
266		* GameStudio versions).
267		*/
268		aiTexture** mTextures;
269
270		/**
271		* The number of light sources in the scene.
272		*
273		* Light sources are fully optional, in most cases this attribute will be
274		* 0.
275		*/
276		uint mNumLights;
277
278		/**
279		* The array of light sources.
280		*
281		* All light sources imported from the given file are listed here. The
282		* array is <code>mNumLights</code> in size.
283		*/
284		aiLight** mLights;
285
286		/**
287		* The number of cameras in the scene.
288		*
289		* Cameras are fully optional, in most cases this attribute
290		* will be 0.
291		*/
292		uint mNumCameras;
293
294		/**
295		* The array of cameras.
296		*
297		* All cameras imported from the given file are listed here. The array is
298		* <code>mNumCameras</code> in size.
299		*
300		* The first camera in the array (if existing) is the default camera view
301		* at the scene.
302		*/
303		aiCamera** mCameras;
304		}
305		}

-122

~~port/unmaintained/dAssimp/assimp/texture.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Contains helper structures to handle textures in Assimp.
43		*
44		* Used for file formats which embed their textures into the model file.
45		* Supported are both normal textures, which are stored as uncompressed pixels,
46		* and "compressed" textures, which are stored in a file format such as PNG or
47		* TGA.
48		*/
49		module assimp.texture;
50
51		extern ( C ) {
52		/**
53		* Helper structure to represent a texel in a ARGB8888 format.
54		*
55		* Used by aiTexture.
56		*/
57		struct aiTexel {
58		align ( 1 ):
59		ubyte b, g, r, a;
60		}
61
62		/**
63		* Helper structure to describe an embedded texture.
64		*
65		* Usually textures are contained in external files but some file formats
66		* embed them directly in the model file. There are two types of
67		* embedded textures:
68		*
69		* <em>1. Uncompressed textures</em>: The color data is given in an
70		* uncompressed format.
71		*
72		* <em>2. Compressed textures</em> stored in a file format like PNG or JPEG.
73		* The raw file bytes are given so the application must utilize an image
74		* decoder (e.g. DevIL) to get access to the actual color data.
75		*/
76		struct aiTexture {
77		/**
78		* Width of the texture, in pixels.
79		*
80		* If <code>mHeight</code> is zero the texture is compressed in a format
81		* like JPEG. In this case, this value specifies the size of the memory
82		* area <code>pcData</code> is pointing to, in bytes.
83		*/
84		uint mWidth;
85
86		/**
87		* Height of the texture, in pixels.
88		*
89		* If this value is zero, <code>pcData</code> points to an compressed
90		* texture in any format (e.g. JPEG).
91		*/
92		uint mHeight;
93
94		/**
95		* A hint from the loader to make it easier for applications to determine
96		* the type of embedded compressed textures.
97		*
98		* If <code>mHeight</code> is not 0, this member is undefined. Otherwise
99		* it is set set to '\0\0\0\0' if the loader has no additional
100		* information about the texture file format used, or the file extension
101		* of the format without a trailing dot. If there are multiple file
102		* extensions for a format, the shortest extension is chosen (JPEG maps
103		* to 'jpg', not to 'jpeg'). E.g. 'dds\0', 'pcx\0', 'jpg\0'. All
104		* characters are lower-case. The fourth byte will always be '\0'.
105		*/
106		char achFormatHint[4];
107
108		/**
109		* Data of the texture.
110		*
111		* Points to an array of <code>mWidth * mHeight</code>
112		* <code>aiTexel</code>s. The format of the texture data is always
113		* ARGB8888 to make the implementation for user of the library as easy as
114		* possible.
115		*
116		* If <code>mHeight</code> is 0, this is a pointer to a memory buffer of
117		* size <code>mWidth</code> containing the compressed texture data.
118		*/
119		aiTexel* pcData;
120		}
121		}

-249

~~port/unmaintained/dAssimp/assimp/types.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Contains miscellaneous types used in Assimp's C API.
43		*/
44		module assimp.types;
45
46		extern ( C ) {
47		/**
48		* Our own C boolean type.
49		*/
50		enum aiBool : int {
51		FALSE = 0,
52		TRUE = 1
53		}
54
55		/**
56		* Type definition for log stream callback function pointers.
57		*/
58		alias void function( char* message, char* user ) aiLogStreamCallback;
59
60		/**
61		* Represents a log stream. A log stream receives all log messages and
62		* streams them somewhere.
63		*
64		* See: <code>aiGetPredefinedLogStream</code>,
65		* <code>aiAttachLogStream</code> and <code>aiDetachLogStream</code>.
66		*/
67		struct aiLogStream {
68		/**
69		* Callback function to be called when a new message arrives.
70		*/
71		aiLogStreamCallback callback;
72
73		/**
74		* User data to be passed to the callback.
75		*/
76		char* user;
77		}
78
79		/**
80		* Maximum dimension for <code>aiString</code>s.
81		*
82		* Assimp strings are zero terminated.
83		*/
84		const size_t MAXLEN = 1024;
85
86		/**
87		* Represents an UTF-8 string, zero byte terminated.
88		*
89		* The length of such a string is limited to <code>MAXLEN</code> bytes
90		* (excluding the terminal \0).
91		*
92		* The character set of an aiString is explicitly defined to be UTF-8. This
93		* Unicode transformation was chosen in the belief that most strings in 3d
94		* model files are limited to ASCII characters, thus the character set
95		* needed to be ASCII compatible.
96		*
97		* Most text file loaders provide proper Unicode input file handling,
98		* special unicode characters are correctly transcoded to UTF-8 and are kept
99		* throughout the libraries' import pipeline.
100		*
101		* For most applications, it will be absolutely sufficient to interpret the
102		* aiString as ASCII data and work with it as one would work with a plain
103		* char[].
104		*
105		* To access an aiString from D you might want to use something like the
106		* following piece of code:
107		* ---
108		* char[] importAiString( aiString* s ) {
109		* return s.data[ 0 .. s.length ];
110		* }
111		* ---
112		*/
113		struct aiString {
114		/**
115		* Length of the string (excluding the terminal \0).
116		*
117		* This is <em>not</em> the logical length of strings containing UTF-8
118		* multibyte sequences, but the number of bytes from the beginning of the
119		* string to its end.
120		*/
121		size_t length;
122
123		/**
124		* String buffer.
125		*
126		* Size limit is <code>MAXLEN</code>.
127		*/
128		char data[ MAXLEN ];
129		}
130
131		/**
132		* Standard return type for some library functions.
133		*/
134		enum aiReturn : uint {
135		/**
136		* Indicates that a function was successful.
137		*/
138		SUCCESS = 0x0,
139
140		/**
141		* Indicates that a function failed.
142		*/
143		FAILURE = -0x1,
144
145		/**
146		* Indicates that not enough memory was available to perform the
147		* requested operation.
148		*/
149		OUTOFMEMORY = -0x3
150		}
151
152		/**
153		* Seek origins (for the virtual file system API).
154		*/
155		enum aiOrigin : uint {
156		/**
157		* Beginning of the file.
158		*/
159		SET = 0x0,
160
161		/**
162		* Current position of the file pointer.
163		*/
164		CUR = 0x1,
165
166		/**
167		* End of the file.
168		*
169		* Offsets must be negative.
170		*/
171		END = 0x2
172		}
173
174		/**
175		* Enumerates predefined log streaming destinations.
176		*
177		* Logging to these streams can be enabled with a single call to
178		* <code>aiAttachPredefinedLogStream()</code>.
179		*/
180		enum aiDefaultLogStream :uint {
181		/**
182		* Stream the log to a file.
183		*/
184		FILE = 0x1,
185
186		/**
187		* Stream the log to standard output.
188		*/
189		STDOUT = 0x2,
190
191		/**
192		* Stream the log to standard error.
193		*/
194		STDERR = 0x4,
195
196		/**
197		* MSVC only: Stream the log the the debugger (this relies on
198		* <code>OutputDebugString</code> from the Win32 SDK).
199		*/
200		DEBUGGER = 0x8
201		}
202
203		/**
204		* Stores the memory requirements for different components (e.g. meshes,
205		* materials, animations) of an import. All sizes are in bytes.
206		*/
207		struct aiMemoryInfo {
208		/**
209		* Storage allocated for texture data.
210		*/
211		uint textures;
212
213		/**
214		* Storage allocated for material data.
215		*/
216		uint materials;
217
218		/**
219		* Storage allocated for mesh data.
220		*/
221		uint meshes;
222
223		/**
224		* Storage allocated for node data.
225		*/
226		uint nodes;
227
228		/**
229		* Storage allocated for animation data.
230		*/
231		uint animations;
232
233		/**
234		* Storage allocated for camera data.
235		*/
236		uint cameras;
237
238		/**
239		* Storage allocated for light data.
240		*/
241		uint lights;
242
243		/**
244		* Total storage allocated for the full import.
245		*/
246		uint total;
247		}
248		}

-72

~~port/unmaintained/dAssimp/assimp/versionInfo.d~~ less more

0		/*
1		---------------------------------------------------------------------------
2		Open Asset Import Library (ASSIMP)
3		---------------------------------------------------------------------------
4
5		Copyright (c) 2006-2009, ASSIMP Development Team
6
7		All rights reserved.
8
9		Redistribution and use of this software in source and binary forms,
10		with or without modification, are permitted provided that the following
11		conditions are met:
12
13		* Redistributions of source code must retain the above
14		copyright notice, this list of conditions and the
15		following disclaimer.
16
17		* Redistributions in binary form must reproduce the above
18		copyright notice, this list of conditions and the
19		following disclaimer in the documentation and/or other
20		materials provided with the distribution.
21
22		* Neither the name of the ASSIMP team, nor the names of its
23		contributors may be used to endorse or promote products
24		derived from this software without specific prior
25		written permission of the ASSIMP Development Team.
26
27		THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
28		"AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
29		LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
30		A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
31		OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
32		SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
33		LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
34		DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
35		THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
36		(INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
37		OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
38		---------------------------------------------------------------------------
39		*/
40
41		/**
42		* Flags returned by <code>aiGetCompileFlags()</code>.
43		*/
44		module assimp.versionInfo;
45
46		extern ( C ) {
47		/**
48		* Assimp was compiled as a shared object (Windows: DLL).
49		*/
50		const uint ASSIMP_CFLAGS_SHARED = 0x1;
51
52		/**
53		* Assimp was compiled against STLport.
54		*/
55		const uint ASSIMP_CFLAGS_STLPORT = 0x2;
56
57		/**
58		* Assimp was compiled as a debug build.
59		*/
60		const uint ASSIMP_CFLAGS_DEBUG = 0x4;
61
62		/**
63		* Assimp was compiled with ASSIMP_BUILD_BOOST_WORKAROUND defined.
64		*/
65		const uint ASSIMP_CFLAGS_NOBOOST = 0x8;
66
67		/**
68		* Assimp was compiled with ASSIMP_BUILD_SINGLETHREADED defined.
69		*/
70		const uint ASSIMP_CFLAGS_SINGLETHREADED = 0x10;
71		}

-1

~~revision.h~~ less more

#define SVNRevision 1262

-0

revision.h.in less more

	0	#ifndef ASSIMP_REVISION_H_INC
	1	#define ASSIMP_REVISION_H_INC
	2
	3	#define GitVersion 0x@GIT_COMMIT_HASH@
	4	#define GitBranch "@GIT_BRANCH@"
	5
	6	#endif // ASSIMP_REVISION_H_INC

-4

samples/SimpleAssimpViewX/ModelLoaderHelperClasses.h less more

7	7
8	8	#import <Cocoa/Cocoa.h>
9	9	#import <OpenGL/OpenGL.h>
10		#import "aiColor4D.h"
11		#import "aiVector3D.h"
12		#import "aiVector2D.h"
13		#import "aiMatrix4x4.h"
	10	#import "color4.h"
	11	#import "vector3.h"
	12	#import "vector2.h"
	13	#import "matrix4x4.h"
14	14
15	15	/* workflow:
16	16

-6

samples/SimpleAssimpViewX/MyDocument.h less more

9	9	#import "ModelLoaderHelperClasses.h"
10	10
11	11	// assimp include files. These three are usually needed.
12		#import "assimp.h"
13		#import "aiPostProcess.h"
14		#import "aiScene.h"
	12	#import "cimport.h"
	13	#import "postprocess.h"
	14	#import "scene.h"
	15	#import "types.h"
15	16
16	17	#import <Cocoa/Cocoa.h>
17	18	#import <OpenGL/OpenGL.h>

28	29
29	30	// Assimp Stuff
30	31	aiScene* _scene;
31		struct aiVector3D scene_min, scene_max, scene_center;
	32	aiVector3D scene_min, scene_max, scene_center;
32	33	double normalizedScale;
33	34
34	35	// Our array of textures.

52	53	- (void) deleteGLResourcesInContext:(CGLContextObj)cgl_ctx;
53	54
54	55	- (void) loadTexturesInContext:(CGLContextObj)cgl_ctx withModelPath:(NSString*) modelPath;
55		- (void) getBoundingBoxWithMinVector:(struct aiVector3D) min maxVectr:(struct aiVector3D) max;
56		- (void) getBoundingBoxForNode:(const struct aiNode)nd minVector:(struct aiVector3D) min maxVector:(struct aiVector3D) max matrix:(struct aiMatrix4x4) trafo;
	56	- (void) getBoundingBoxWithMinVector:(aiVector3D) min maxVectr:(aiVector3D) max;
	57	- (void) getBoundingBoxForNode:(const aiNode)nd minVector:(aiVector3D) min maxVector:(aiVector3D) max matrix:(aiMatrix4x4) trafo;
57	58
58	59	@end

+16

-12

samples/SimpleAssimpViewX/MyDocument.mm less more

5	5	// Copyright __MyCompanyName__ 2010 . All rights reserved.
6	6	//
7	7
8		#import "aiConfig.h"
	8	#import "cimport.h"
	9	#import "config.h"
9	10	#import "MyDocument.h"
10	11	#import <OpenGL/CGLMacro.h>
11	12

15	16	#define aisgl_min(x,y) (x<y?x:y)
16	17	#define aisgl_max(x,y) (y>x?y:x)
17	18
18		static void color4_to_float4(const struct aiColor4D *c, float f[4])
	19	static void color4_to_float4(const aiColor4D *c, float f[4])
19	20	{
20	21	f[0] = c->r;
21	22	f[1] = c->g;

159	160	// Load our new path.
160	161
161	162	// only ever give us triangles.
162		aiSetImportPropertyInteger(AI_CONFIG_PP_SBP_REMOVE, aiPrimitiveType_LINE \| aiPrimitiveType_POINT );
	163	aiPropertyStore* props = aiCreatePropertyStore();
	164	aiSetImportPropertyInteger(props, AI_CONFIG_PP_SBP_REMOVE, aiPrimitiveType_LINE \| aiPrimitiveType_POINT );
163	165
164	166	NSUInteger aiPostProccesFlags;
165	167

180	182	}
181	183
182	184	// aiProcess_FlipUVs is needed for VAO / VBOs, not sure why.
183		_scene = (aiScene*) aiImportFile([[openPanel filename] cStringUsingEncoding:[NSString defaultCStringEncoding]], aiPostProccesFlags \| aiProcess_Triangulate \| aiProcess_FlipUVs \| aiProcess_PreTransformVertices \| 0 );
	185	_scene = (aiScene*) aiImportFileExWithProperties([[openPanel filename] cStringUsingEncoding:[NSString defaultCStringEncoding]], aiPostProccesFlags \| aiProcess_Triangulate \| aiProcess_FlipUVs \| aiProcess_PreTransformVertices \| 0, NULL, props);
	186
	187	aiReleasePropertyStore(props);
184	188
185	189	if (_scene)
186	190	{

754	758
755	759	}
756	760
757		- (void) getBoundingBoxWithMinVector:(struct aiVector3D) min maxVectr:(struct aiVector3D) max
758		{
759		struct aiMatrix4x4 trafo;
	761	- (void) getBoundingBoxWithMinVector:(aiVector3D) min maxVectr:(aiVector3D) max
	762	{
	763	aiMatrix4x4 trafo;
760	764	aiIdentityMatrix4(&trafo);
761	765
762	766	min->x = min->y = min->z = 1e10f;

765	769	[self getBoundingBoxForNode:_scene->mRootNode minVector:min maxVector:max matrix:&trafo];
766	770	}
767	771
768		- (void) getBoundingBoxForNode:(const struct aiNode)nd minVector:(struct aiVector3D) min maxVector:(struct aiVector3D) max matrix:(struct aiMatrix4x4) trafo
769		{
770		struct aiMatrix4x4 prev;
	772	- (void) getBoundingBoxForNode:(const aiNode)nd minVector:(aiVector3D) min maxVector:(aiVector3D) max matrix:(aiMatrix4x4) trafo
	773	{
	774	aiMatrix4x4 prev;
771	775	unsigned int n = 0, t;
772	776
773	777	prev = *trafo;

775	779
776	780	for (; n < nd->mNumMeshes; ++n)
777	781	{
778		const struct aiMesh* mesh = _scene->mMeshes[nd->mMeshes[n]];
	782	const aiMesh* mesh = _scene->mMeshes[nd->mMeshes[n]];
779	783	for (t = 0; t < mesh->mNumVertices; ++t)
780	784	{
781		struct aiVector3D tmp = mesh->mVertices[t];
	785	aiVector3D tmp = mesh->mVertices[t];
782	786	aiTransformVecByMatrix4(&tmp,trafo);
783	787
784	788	min->x = aisgl_min(min->x,tmp.x);

+96

-80

samples/SimpleAssimpViewX/SimpleAssimpViewX.xcodeproj/project.pbxproj less more

8	8	/* Begin PBXBuildFile section */
9	9	1B0E9A901279ED43003108E7 /* libassimp.a in Frameworks / = {isa = PBXBuildFile; fileRef = 1B0E9A8F1279ED43003108E7 / libassimp.a */; };
10	10	1B0E9A951279EDCD003108E7 /* ModelLoaderHelperClasses.mm in Sources / = {isa = PBXBuildFile; fileRef = 1B0E9A941279EDCD003108E7 / ModelLoaderHelperClasses.mm */; };
11		1B0E9AF51279EFCC003108E7 /* aiColor4D.inl in Resources / = {isa = PBXBuildFile; fileRef = 1B0E9AD71279EFCC003108E7 / aiColor4D.inl */; };
12		1B0E9AF61279EFCC003108E7 /* aiMaterial.inl in Resources / = {isa = PBXBuildFile; fileRef = 1B0E9ADD1279EFCC003108E7 / aiMaterial.inl */; };
13		1B0E9AF71279EFCC003108E7 /* aiMatrix3x3.inl in Resources / = {isa = PBXBuildFile; fileRef = 1B0E9ADF1279EFCC003108E7 / aiMatrix3x3.inl */; };
14		1B0E9AF81279EFCC003108E7 /* aiMatrix4x4.inl in Resources / = {isa = PBXBuildFile; fileRef = 1B0E9AE11279EFCC003108E7 / aiMatrix4x4.inl */; };
15		1B0E9AF91279EFCC003108E7 /* aiVector3D.inl in Resources / = {isa = PBXBuildFile; fileRef = 1B0E9AEA1279EFCC003108E7 / aiVector3D.inl */; };
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	177	C75BB4EF17EE0B64004F0260 /* cimport.h */,
	178	C75BB4F017EE0B64004F0260 /* color4.h */,
	179	C75BB4F117EE0B64004F0260 /* color4.inl */,
	180	C75BB4F217EE0B64004F0260 /* config.h */,
	181	C75BB4F317EE0B64004F0260 /* metadata.h */,
	182	C75BB4F417EE0B64004F0260 /* NullLogger.hpp */,
	183	C75BB4F517EE0B64004F0260 /* quaternion.inl */,
170	184	1B0E9AFC1279F006003108E7 /* Compiler */,
171	185	);
172	186	path = include;

294	308	8D15AC2F0486D014006FF6A4 /* InfoPlist.strings in Resources */,
295	309	2F7446AB0DB6BCF400F9684A /* MainMenu.xib in Resources */,
296	310	2F7446AC0DB6BCF400F9684A /* MyDocument.xib in Resources */,
297		1B0E9AF51279EFCC003108E7 /* aiColor4D.inl in Resources */,
298		1B0E9AF61279EFCC003108E7 /* aiMaterial.inl in Resources */,
299		1B0E9AF71279EFCC003108E7 /* aiMatrix3x3.inl in Resources */,
300		1B0E9AF81279EFCC003108E7 /* aiMatrix4x4.inl in Resources */,
301		1B0E9AF91279EFCC003108E7 /* aiVector3D.inl in Resources */,
	311	C75BB4F617EE0B64004F0260 /* color4.inl in Resources */,
	312	C75BB4F717EE0B64004F0260 /* quaternion.inl in Resources */,
	313	C75BB51417EE0B75004F0260 /* material.inl in Resources */,
	314	C75BB51517EE0B75004F0260 /* matrix3x3.inl in Resources */,
	315	C75BB51617EE0B75004F0260 /* matrix4x4.inl in Resources */,
	316	C75BB51717EE0B75004F0260 /* vector2.inl in Resources */,
	317	C75BB51817EE0B75004F0260 /* vector3.inl in Resources */,
302	318	);
303	319	runOnlyForDeploymentPostprocessing = 0;
304	320	};

412	428	GCC_WARN_UNUSED_VARIABLE = YES;
413	429	ONLY_ACTIVE_ARCH = YES;
414	430	PREBINDING = NO;
415		SDKROOT = macosx10.6;
	431	SDKROOT = macosx;
416	432	};
417	433	name = Debug;
418	434	};

424	440	GCC_WARN_ABOUT_RETURN_TYPE = YES;
425	441	GCC_WARN_UNUSED_VARIABLE = YES;
426	442	PREBINDING = NO;
427		SDKROOT = macosx10.6;
	443	SDKROOT = macosx;
428	444	};
429	445	name = Release;
430	446	};

-2

samples/SimpleOpenGL/CMakeLists.txt less more

26	26	Sample_SimpleOpenGL.c
27	27	)
28	28
29		SET_PROPERTY(TARGET assimp_simpleogl PROPERTY DEBUG_POSTFIX ${DEBUG_POSTFIX})
	29	SET_PROPERTY(TARGET assimp_simpleogl PROPERTY DEBUG_POSTFIX ${ASSIMP_DEBUG_POSTFIX})
30	30
31	31	TARGET_LINK_LIBRARIES( assimp_simpleogl assimp ${OPENGL_LIBRARIES} ${GLUT_LIBRARIES} )
32	32	SET_TARGET_PROPERTIES( assimp_simpleogl PROPERTIES

34	34	)
35	35
36	36	INSTALL( TARGETS assimp_simpleogl
37		DESTINATION "${BIN_INSTALL_DIR}" COMPONENT assimp-dev
	37	DESTINATION "${ASSIMP_BIN_INSTALL_DIR}" COMPONENT assimp-dev
38	38	)

+13

-0

samples/SimpleOpenGL/Sample_SimpleOpenGL.c less more

10	10	// ----------------------------------------------------------------------------
11	11
12	12	#include <stdlib.h>
	13	#include <stdio.h>
13	14
14	15	#include <GL/glut.h>
15	16

234	235	void do_motion (void)
235	236	{
236	237	static GLint prev_time = 0;
	238	static GLint prev_fps_time = 0;
	239	static int frames = 0;
237	240
238	241	int time = glutGet(GLUT_ELAPSED_TIME);
239	242	angle += (time-prev_time)*0.01;
240	243	prev_time = time;
	244
	245	frames += 1;
	246	if ((time - prev_fps_time) > 1000) // update every seconds
	247	{
	248	int current_fps = frames * 1000 / (time - prev_fps_time);
	249	printf("%d fps\n", current_fps);
	250	frames = 0;
	251	prev_fps_time = time;
	252	}
	253
241	254
242	255	glutPostRedisplay ();
243	256	}

+18

-17

samples/SimpleTexturedOpenGL/CMakeLists.txt less more

	0	FIND_PACKAGE(OpenGL)
	1	FIND_PACKAGE(GLUT)
	2
	3	IF ( NOT GLUT_FOUND )
	4	IF ( MSVC )
	5	SET ( GLUT_FOUND 1 )
	6	SET ( GLUT_INCLUDE_DIR ${Assimp_SOURCE_DIR}/samples/glut/ )
	7	SET ( GLUT_LIBRARIES ${Assimp_SOURCE_DIR}/samples/glut/glut32.lib )
	8	ELSE ( MSVC )
	9	MESSAGE( WARNING "Please install glut." )
	10	ENDIF ( MSVC )
	11	ENDIF ( NOT GLUT_FOUND )
	12
0	13	INCLUDE_DIRECTORIES(
1	14	${Assimp_SOURCE_DIR}/include
2	15	${Assimp_SOURCE_DIR}/code
3		${Assimp_SOURCE_DIR}/samples/glut/
	16	${OPENGL_INCLUDE_DIR}
	17	${GLUT_INCLUDE_DIR}
4	18	${Assimp_SOURCE_DIR}/samples/DevIL/include/
5	19	)
6	20
7	21	LINK_DIRECTORIES(
8	22	${Assimp_BINARY_DIR}
9	23	${Assimp_BINARY_DIR}/lib/
10		${Assimp_SOURCE_DIR}/samples/glut/
11	24	${Assimp_SOURCE_DIR}/samples/DevIL/lib/
12	25	)
13	26

16	29	SimpleTexturedOpenGL/src/model_loading.cpp
17	30	)
18	31
19		SET_PROPERTY(TARGET assimp_simpletexturedogl PROPERTY DEBUG_POSTFIX ${DEBUG_POSTFIX})
	32	SET_PROPERTY(TARGET assimp_simpletexturedogl PROPERTY DEBUG_POSTFIX ${ASSIMP_DEBUG_POSTFIX})
20	33
21		IF( WIN32 )
22		SET( PSDK_PATH "C:/Program Files/Microsoft Platform SDK/Bin" )
23		SET( PSDK_INC "C:/Program Files/Microsoft Platform SDK/Include" )
24
25		FIND_LIBRARY( WIN32_COMCTRL comctl32.lib
26		PATHS
27		"C:/Programme/Microsoft Platform SDK for Windows Server 2003 R2/Lib"
28		DOC "Path to psdk"
29		)
30		ENDIF( WIN32 )
31
32
33		TARGET_LINK_LIBRARIES( assimp_simpletexturedogl assimp opengl32.lib glu32.lib comctl32.lib devil.lib )
	34	TARGET_LINK_LIBRARIES( assimp_simpletexturedogl assimp ${OPENGL_LIBRARIES} ${GLUT_LIBRARIES} DevIL.lib )
34	35
35	36	SET_TARGET_PROPERTIES( assimp_simpletexturedogl PROPERTIES
36	37	OUTPUT_NAME assimp_simpletexturedogl
37	38	)
38	39
39	40	INSTALL( TARGETS assimp_simpletexturedogl
40		DESTINATION "${BIN_INSTALL_DIR}" COMPONENT assimp-dev
	41	DESTINATION "${ASSIMP_BIN_INSTALL_DIR}" COMPONENT assimp-dev
41	42	)

+50

-48

samples/SimpleTexturedOpenGL/SimpleTexturedOpenGL/src/model_loading.cpp less more

16	16
17	17	#include <windows.h>
18	18	#include <stdio.h>
19		#include <gl\GL.h>
20		#include <gl\GLU.h>
21		#include <IL\il.h>
	19	#include <GL/gl.h>
	20	#include <GL/glu.h>
	21	#include <IL/il.h>
22	22
23	23	#include <fstream>
24	24

29	29
30	30	// assimp include files. These three are usually needed.
31	31	#include "assimp/Importer.hpp" //OO version Header!
32		#include "assimp/PostProcess.h"
33		#include "assimp/Scene.h"
	32	#include "assimp/postprocess.h"
	33	#include "assimp/scene.h"
34	34	#include "assimp/DefaultLogger.hpp"
35	35	#include "assimp/LogStream.hpp"
36	36
37	37
38		// currently these are hardcoded
39		static const std::string basepath = "../../test/models/OBJ/";
40		static const std::string modelname = "spider.obj";
	38	// The default hardcoded path. Can be overridden by supplying a path through the commandline.
	39	static std::string modelpath = "../../test/models/OBJ/spider.obj";
41	40
42	41
43	42	HGLRC hRC=NULL; // Permanent Rendering Context

164	163	}
165	164
166	165
	166	std::string getBasePath(const std::string& path)
	167	{
	168	size_t pos = path.find_last_of("\\/");
	169	return (std::string::npos == pos) ? "" : path.substr(0, pos + 1);
	170	}
167	171
168	172	int LoadGLTextures(const aiScene* scene)
169	173	{

172	176	/* Before calling ilInit() version should be checked. */
173	177	if (ilGetInteger(IL_VERSION_NUM) < IL_VERSION)
174	178	{
175		ILint test = ilGetInteger(IL_VERSION_NUM);
176	179	/// wrong DevIL version ///
177	180	std::string err_msg = "Wrong DevIL version. Old devil.dll in system32/SysWow64?";
178	181	char* cErr_msg = (char *) err_msg.c_str();

219	222	/* get iterator */
220	223	std::map<std::string, GLuint*>::iterator itr = textureIdMap.begin();
221	224
	225	std::string basepath = getBasePath(modelpath);
222	226	for (int i=0; i<numTextures; i++)
223	227	{
224	228

409	413	unsigned int n=0, t;
410	414	aiMatrix4x4 m = nd->mTransformation;
411	415
412		m.Scaling(aiVector3D(scale, scale, scale), m);
	416	aiMatrix4x4 m2;
	417	aiMatrix4x4::Scaling(aiVector3D(scale, scale, scale), m2);
	418	m = m * m2;
413	419
414	420	// update transform
415	421	m.Transpose();

796	802	return DefWindowProc(hWnd, uMsg, wParam, lParam);
797	803	}
798	804
799
800	805	int WINAPI WinMain( HINSTANCE hInstance, // Instance
801	806	HINSTANCE hPrevInstance, // Previous Instance
802	807	LPSTR lpCmdLine, // Command Line Parameters
803	808	int nShowCmd ) // Window Show State
804	809	{
805		MSG msg; // Windows Message Structure
806		BOOL done=FALSE; // Bool Variable To Exit Loop
	810	MSG msg;
	811	BOOL done=FALSE;
807	812
808	813	createAILogger();
809	814	logInfo("App fired!");
810	815
811		// load scene
812
813		if (!Import3DFromFile(basepath+modelname)) return 0;
	816	// Check the command line for an override file path.
	817	int argc;
	818	LPWSTR* argv = CommandLineToArgvW(GetCommandLineW(), &argc);
	819	if (argv != NULL && argc > 1)
	820	{
	821	std::wstring modelpathW(argv[1]);
	822	modelpath = std::string(modelpathW.begin(), modelpathW.end());
	823	}
	824
	825	if (!Import3DFromFile(modelpath)) return 0;
814	826
815	827	logInfo("=============== Post Import ====================");
816	828
817
818		// Ask The User Which Screen Mode They Prefer
819	829	if (MessageBox(NULL, "Would You Like To Run In Fullscreen Mode?", "Start Fullscreen?", MB_YESNO\|MB_ICONEXCLAMATION)==IDNO)
820	830	{
821		fullscreen=FALSE; // Windowed Mode
822		}
823
824		// Create Our OpenGL Window (also calls GLinit und LoadGLTextures)
	831	fullscreen=FALSE;
	832	}
	833
825	834	if (!CreateGLWindow(windowTitle, 640, 480, 16, fullscreen))
826	835	{
827	836	return 0;
828	837	}
829	838
830
831
832
833	839	while(!done) // Game Loop
834	840	{
835		if (PeekMessage(&msg, NULL, 0,0, PM_REMOVE)) // Is There A Message Waiting
836		{
837		if (msg.message==WM_QUIT) // Have we received A Quit Message?
838		{
839		done=TRUE; // If So done=TRUE
	841	if (PeekMessage(&msg, NULL, 0,0, PM_REMOVE))
	842	{
	843	if (msg.message==WM_QUIT)
	844	{
	845	done=TRUE;
840	846	}
841	847	else
842	848	{
843		TranslateMessage(&msg); // Translate The Message
844		DispatchMessage(&msg); // Dispatch The Message
	849	TranslateMessage(&msg);
	850	DispatchMessage(&msg);
845	851	}
846	852	}
847	853	else

849	855	// Draw The Scene. Watch For ESC Key And Quit Messaged From DrawGLScene()
850	856	if (active)
851	857	{
852		if (keys[VK_ESCAPE]) // Was ESC pressed?
	858	if (keys[VK_ESCAPE])
853	859	{
854		done=TRUE; // ESC signalled A quit
	860	done=TRUE;
855	861	}
856	862	else
857	863	{
858		DrawGLScene(); // Draw The Scene
859		SwapBuffers(hDC); // Swap Buffers (Double Buffering)
	864	DrawGLScene();
	865	SwapBuffers(hDC);
860	866	}
861	867	}
862	868
863		if (keys[VK_F1]) // Is F1 Being Pressed?
864		{
865		keys[VK_F1]=FALSE; // If so make Key FALSE
866		KillGLWindow(); // Kill Our Current Window
867		fullscreen=!fullscreen; // Toggle Fullscreen
868		//recreate Our OpenGL Window
	869	if (keys[VK_F1])
	870	{
	871	keys[VK_F1]=FALSE;
	872	KillGLWindow();
	873	fullscreen=!fullscreen;
869	874	if (!CreateGLWindow(windowTitle, 640, 480, 16, fullscreen))
870	875	{
871		return 0; // Quit if Window Was Not Created
	876	return 0;
872	877	}
873	878	}
874	879	}

876	881
877	882	// * cleanup *
878	883
879		// clear map
880	884	textureIdMap.clear(); //no need to delete pointers in it manually here. (Pointers point to textureIds deleted in next step)
881	885
882		// clear texture ids
883	886	if (textureIds)
884	887	{
885	888	delete[] textureIds;

888	891
889	892	// * cleanup end *
890	893
891		// Shutdown
892	894	destroyAILogger();
893	895	KillGLWindow();
894		return (msg.wParam); // Exit The Program
895		}
	896	return (msg.wParam);
	897	}

samples/bin/DevIL.dll less more

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samples/bin/ILU.dll less more

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samples/bin/ILUT.dll less more

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samples/bin/glut32.dll less more

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+61

-5

scripts/BlenderImporter/genblenddna.py less more

4	4	# Open Asset Import Library (ASSIMP)
5	5	# ---------------------------------------------------------------------------
6	6	#
7		# Copyright (c) 2006-2010, ASSIMP Development Team
	7	# Copyright (c) 2006-2013, ASSIMP Development Team
8	8	#
9	9	# All rights reserved.
10	10	#

54	54	template_gen = "BlenderSceneGen.h.template"
55	55	template_src = "BlenderScene.cpp.template"
56	56
	57	# workaround for stackoverflowing when reading the linked list of scene objects
	58	# with the usual approach. See embedded notes for details.
	59	Structure_Convert_Base_fullcode = """
	60	template <> void Structure :: Convert<Base> (
	61	Base& dest,
	62	const FileDatabase& db
	63	) const
	64	{
	65	// note: as per https://github.com/assimp/assimp/issues/128,
	66	// reading the Object linked list recursively is prone to stack overflow.
	67	// This structure converter is therefore an hand-written exception that
	68	// does it iteratively.
	69
	70	const int initial_pos = db.reader->GetCurrentPos();
	71
	72	std::pair<Base*, int> todo = std::make_pair(&dest, initial_pos);
	73
	74	Base* saved_prev = NULL;
	75
	76	while(true) {
	77
	78	Base& cur_dest = *todo.first;
	79	db.reader->SetCurrentPos(todo.second);
	80
	81	// we know that this is a double-linked, circular list which we never
	82	// traverse backwards, so don't bother resolving the back links.
	83	cur_dest.prev = NULL;
	84
	85	ReadFieldPtr<ErrorPolicy_Warn>(cur_dest.object,"*object",db);
	86
	87	// just record the offset of the blob data and allocate storage.
	88	// Does _not_ invoke Convert() recursively.
	89	const int old = db.reader->GetCurrentPos();
	90
	91	// the return value of ReadFieldPtr indicates whether the object
	92	// was already cached. In this case, we don't need to resolve
	93	// it again.
	94	if(!ReadFieldPtr<ErrorPolicy_Warn>(cur_dest.next,"*next",db, true) && cur_dest.next) {
	95	todo = std::make_pair(&*cur_dest.next, db.reader->GetCurrentPos());
	96	continue;
	97	}
	98	break;
	99	}
	100
	101	db.reader->SetCurrentPos(initial_pos + size);
	102	}
	103
	104	"""
	105
57	106
58	107	Structure_Convert_decl = """
59	108	template <> void Structure :: Convert<{a}> (

104	153	# Parse structure definitions from BlenderScene.h
105	154	input = open(inputfile,"rt").read()
106	155
107		flags = re.ASCII\|re.DOTALL\|re.MULTILINE
	156	#flags = re.ASCII\|re.DOTALL\|re.MULTILINE
	157	flags = re.DOTALL\|re.MULTILINE
108	158	#stripcoms = re.compile(r"/\(.?)*\/",flags)
109	159	getstruct = re.compile(r"struct\s+(\w+?)\s(:\sElemBase)?\s\{(.?)^\}\s*;",flags)
110	160	getsmartx = re.compile(r"(std\s::\s)?(vector)\s<\s(boost\s::\s)?shared_(ptr)\s<\s(\w+)\s>\s>\s*",flags)

142	192
143	193	input = input[match.end():]
144	194
145		[print ("Enum: "+e) for e in enums]
	195	for e in enums:
	196	print("Enum: "+e)
146	197	for k,v in hits.items():
147	198	out = []
148	199	for line in v:

176	227
177	228	v[:] = out
178	229	print("Structure {0}".format(k))
179		[print("\t"+"\t".join(elem)) for elem in out]
	230	for elem in out:
	231	print("\t"+"\t".join(elem))
180	232	print("")
181	233
182	234

197	249	# -----------------------------------------------------------------------
198	250	# Structure::Convert<T> definitions for all supported structures
199	251	for k,v in hits.items():
200		s += "//" + "-"*80 + Structure_Convert_decl.format(a=k)+ "{ \n";
	252	s += "//" + "-"*80
	253	if k == 'Base':
	254	s += Structure_Convert_Base_fullcode
	255	continue
	256	s += Structure_Convert_decl.format(a=k)+ "{ \n";
201	257
202	258	for type, name, policy in v:
203	259	splits = name.split("[",1)

-0

scripts/IFCImporter/CppGenerator.py less more

42	42	"""Generate the C++ glue code needed to map EXPRESS to C++"""
43	43
44	44	import sys, os, re
	45
	46	if sys.version_info < (3, 0):
	47	print("must use python 3.0 or greater")
	48	sys.exit(-2)
45	49
46	50	input_template_h = 'IFCReaderGen.h.template'
47	51	input_template_cpp = 'IFCReaderGen.cpp.template'

-1

scripts/IFCImporter/entitylist.txt less more

93	93	IfcSurfaceStyleShading
94	94	IfcSurfaceStyleWithTextures
95	95	IfcSweptAreaSolid
	96	IfcSweptDiskSolid
96	97	IfcTopologicalRepresentationItem
97	98	IfcTrimmedCurve
98	99	IfcUnit
99	100	IfcUnitAssignment
100	101	IfcVector
101
	102	IfcIShapeProfileDef
	103	IfcPropertyListValue
	104	IfcRelDefinesByProperties
	105	IfcPropertySet
	106	IfcPropertySingleValue
	107	IfcProperty
	108	IfcComplexProperty
	109	IfcElementQuantity

+11

-2

tools/assimp_cmd/CMakeLists.txt less more

	0	cmake_minimum_required( VERSION 2.6 )
	1
0	2	INCLUDE_DIRECTORIES(
1	3	${Assimp_SOURCE_DIR}/include
2	4	${Assimp_SOURCE_DIR}/code

16	18	Export.cpp
17	19	)
18	20
19		SET_PROPERTY(TARGET assimp_cmd PROPERTY DEBUG_POSTFIX ${DEBUG_POSTFIX})
	21	SET_PROPERTY(TARGET assimp_cmd PROPERTY DEBUG_POSTFIX ${ASSIMP_DEBUG_POSTFIX})
	22
	23	IF( WIN32 )
	24	ADD_CUSTOM_COMMAND(TARGET assimp_cmd
	25	PRE_BUILD
	26	COMMAND ${CMAKE_COMMAND} -E copy_if_different $<TARGET_FILE:assimp> $<TARGET_FILE_DIR:assimp_cmd>
	27	MAIN_DEPENDENCY assimp)
	28	ENDIF( WIN32 )
20	29
21	30	TARGET_LINK_LIBRARIES( assimp_cmd assimp ${ZLIB_LIBRARIES})
22	31	SET_TARGET_PROPERTIES( assimp_cmd PROPERTIES

24	33	)
25	34
26	35	INSTALL( TARGETS assimp_cmd
27		DESTINATION "${BIN_INSTALL_DIR}" COMPONENT assimp-bin
	36	DESTINATION "${ASSIMP_BIN_INSTALL_DIR}" COMPONENT assimp-bin
28	37	)

-1

tools/assimp_cmd/Main.cpp less more

50	50	" -- Commandline toolchain --\n"
51	51	"------------------------------------------------------ \n\n"
52	52
53		"Version %i.%i-%s%s%s%s%s (SVNREV %i)\n\n";
	53	"Version %i.%i %s%s%s%s%s(GIT commit %x)\n\n";
54	54
55	55	const char* AICMD_MSG_HELP =
56	56	"assimp <verb> <parameters>\n\n"

+23

-2

tools/assimp_cmd/WriteDumb.cpp less more

808	808
809	809
810	810	// -----------------------------------------------------------------------------------
	811	// Some chuncks of text will need to be encoded for XML
	812	// http://stackoverflow.com/questions/5665231/most-efficient-way-to-escape-xml-html-in-c-string#5665377
	813	static std::string encodeXML(const std::string& data) {
	814	std::string buffer;
	815	buffer.reserve(data.size());
	816	for(size_t pos = 0; pos != data.size(); ++pos) {
	817	switch(data[pos]) {
	818	case '&': buffer.append("&"); break;
	819	case '\"': buffer.append("""); break;
	820	case '\'': buffer.append("'"); break;
	821	case '<': buffer.append("<"); break;
	822	case '>': buffer.append(">"); break;
	823	default: buffer.append(&data[pos], 1); break;
	824	}
	825	}
	826	return buffer;
	827	}
	828
	829
	830
	831	// -----------------------------------------------------------------------------------
811	832	// Write a text model dump
812	833	void WriteDump(const aiScene* scene, FILE* out, const char* src, const char* cmd, bool shortened)
813	834	{

1013	1034	}
1014	1035	}
1015	1036	else if (prop->mType == aiPTI_String) {
1016		fprintf(out,">\n\t\t\t\"%s\"",prop->mData+4 /* skip length */);
	1037	fprintf(out,">\n\t\t\t\t\"%s\"",encodeXML(prop->mData+4).c_str() /* skip length */);
1017	1038	}
1018	1039	fprintf(out,"\n\t\t\t</MatProperty>\n");
1019	1040	}

1257	1278	mesh->mColors[a][n].a);
1258	1279	}
1259	1280	}
1260		fprintf(out,"\t\t</Color>\n");
	1281	fprintf(out,"\t\t</Colors>\n");
1261	1282	}
1262	1283	fprintf(out,"\t</Mesh>\n");
1263	1284	}

-2

tools/assimp_cmd/assimp_cmd.rc less more

41	41	//
42	42
43	43	VS_VERSION_INFO VERSIONINFO
44		FILEVERSION 1,1,SVNRevision,0
45		PRODUCTVERSION 1,1,SVNRevision,1
	44	FILEVERSION 1, 1, GitVersion, 0
	45	PRODUCTVERSION 1, 1, GitVersion, 1
46	46	FILEFLAGSMASK 0x17L
47	47	#ifdef _DEBUG
48	48	FILEFLAGS 0x1L

-5

tools/assimp_view/AssetHelper.h less more

138	138	:
139	139	piVB (NULL),
140	140	piIB (NULL),
	141	piVBNormals (NULL),
141	142	piEffect (NULL),
142		piVBNormals (NULL),
	143	bSharedFX (false),
143	144	piDiffuseTexture (NULL),
144	145	piSpecularTexture (NULL),
145	146	piAmbientTexture (NULL),
	147	piEmissiveTexture (NULL),
146	148	piNormalTexture (NULL),
147		piEmissiveTexture (NULL),
148	149	piOpacityTexture (NULL),
149	150	piShininessTexture (NULL),
150	151	piLightmapTexture (NULL),
151		pvOriginalNormals (NULL),
152		bSharedFX(false),
153		twosided (false){}
	152	twosided (false),
	153	pvOriginalNormals (NULL)
	154	{}
154	155
155	156	~MeshHelper ()
156	157	{

-3

tools/assimp_view/Background.h less more

46	46	{
47	47	CBackgroundPainter()
48	48	:
	49	clrColor(D3DCOLOR_ARGB(0xFF,100,100,100)),
49	50	pcTexture(NULL),
50		clrColor(D3DCOLOR_ARGB(0xFF,100,100,100)),
51		eMode(SIMPLE_COLOR),
52		piSkyBoxEffect(NULL)
	51	piSkyBoxEffect(NULL),
	52	eMode(SIMPLE_COLOR)
53	53	{}
54	54
55	55	public:

+23

-43

tools/assimp_view/CMakeLists.txt less more

0		# Make sure the compiler can find include files from our Hello library.
1		include_directories (
	0	cmake_minimum_required( VERSION 2.6 )
	1
	2	FIND_PACKAGE(DirectX REQUIRED)
	3
	4	INCLUDE_DIRECTORIES (
2	5	${Assimp_SOURCE_DIR}/include
3	6	${Assimp_SOURCE_DIR}/code
4		${DX9_INCLUDE_PATH}
	7	${DirectX_INCLUDE_DIR}
5	8	)
6	9
7		# Make sure the linker can find the Hello library once it is built.
8		link_directories (${Assimp_BINARY_DIR} ${AssetImporter_BINARY_DIR}/lib)
	10	# Make sure the linker can find the Assimp library once it is built.
	11	LINK_DIRECTORIES (${Assimp_BINARY_DIR} ${AssetImporter_BINARY_DIR}/lib)
9	12
10		# Add executable called "helloDemo" that is built from the source files
11		# "demo.cxx" and "demo_b.cxx". The extensions are automatically found.
12		add_executable( assimp_viewer WIN32
	13	ADD_EXECUTABLE( assimp_viewer WIN32
13	14	AnimEvaluator.cpp
14	15	Background.cpp
15	16	Display.cpp

40	41	txi.bmp
41	42	)
42	43
43		SET_PROPERTY(TARGET assimp_viewer PROPERTY DEBUG_POSTFIX ${DEBUG_POSTFIX})
44
45		IF( WIN32 )
46		SET( PSDK_PATH "C:/Program Files/Microsoft Platform SDK/Bin" )
47		SET( PSDK_INC "C:/Program Files/Microsoft Platform SDK/Include" )
48
49		FIND_PATH(DX9_INCLUDE_PATH d3d9.h
50		PATHS
51		"$ENV{DXSDK_DIR}/Include"
52		"$ENV{PROGRAMFILES}/Microsoft DirectX SDK/Include"
53		DOC "The directory where D3D9.h resides")
	44	SET_PROPERTY(TARGET assimp_viewer PROPERTY DEBUG_POSTFIX ${ASSIMP_DEBUG_POSTFIX})
54	45
55	46
56		FIND_LIBRARY(D3D9_LIBRARY d3d9.lib
57		PATHS
58		"$ENV{DXSDK_DIR}/Lib/x86"
59		"$ENV{PROGRAMFILES}/Microsoft DirectX SDK/Lib/x86"
60		DOC "The directory where d3d9.lib resides")
	47	IF ( MSVC )
	48	ADD_DEFINITIONS( -D_SCL_SECURE_NO_WARNINGS )
	49	ADD_DEFINITIONS( -D_CRT_SECURE_NO_WARNINGS )
	50	ENDIF ( MSVC )
61	51
62		FIND_LIBRARY(D3DX9_LIBRARY d3dx9.lib
63		PATHS
64		"$ENV{DXSDK_DIR}/Lib/x86"
65		"$ENV{PROGRAMFILES}/Microsoft DirectX SDK/Lib/x86"
66		DOC "The directory where d3dx9.lib resides")
67	52
68		SET( DX9_LIBRARIES ${D3D9_LIBRARY} ${D3DX9_LIBRARY} )
69
70		FIND_LIBRARY( WIN32_COMCTRL comctl32.lib
71		PATHS
72		"C:/Programme/Microsoft Platform SDK for Windows Server 2003 R2/Lib"
73		DOC "Path to psdk"
74		)
75		ADD_DEFINITIONS( -D_SCL_SECURE_NO_WARNINGS )
76		ADD_DEFINITIONS( -D_CRT_SECURE_NO_WARNINGS )
77		ENDIF( WIN32 )
	53	#
	54	ADD_CUSTOM_COMMAND(TARGET assimp_viewer
	55	PRE_BUILD
	56	COMMAND ${CMAKE_COMMAND} -E copy_if_different $<TARGET_FILE:assimp> $<TARGET_FILE_DIR:assimp_viewer>
	57	MAIN_DEPENDENCY assimp)
78	58
79		# Link the executable to the Hello library.
80		target_link_libraries ( assimp_viewer assimp ${DX9_LIBRARIES} comctl32.lib Winmm.lib )
	59	# Link the executable to the assimp + dx libs.
	60	TARGET_LINK_LIBRARIES ( assimp_viewer assimp ${DirectX_LIBRARY} ${DirectX_D3DX9_LIBRARY} comctl32.lib winmm.lib )
81	61
82	62	INSTALL( TARGETS assimp_viewer
83		DESTINATION "${BIN_INSTALL_DIR}" COMPONENT assimp-dev
84		)
	63	DESTINATION "${ASSIMP_BIN_INSTALL_DIR}" COMPONENT assimp-dev
	64	)

-1

tools/assimp_view/Camera.h less more

54	54	:
55	55
56	56	vPos(0.0f,0.0f,-10.0f),
	57	vUp(0.0f,1.0f,0.0f),
57	58	vLookAt(0.0f,0.0f,1.0f),
58		vUp(0.0f,1.0f,0.0f),
59	59	vRight(0.0f,1.0f,0.0f)
60	60	{
61	61

-6

tools/assimp_view/Display.cpp less more

286	286	TreeView_SetItem(GetDlgItem(g_hDlg,IDC_TREE1),
287	287	m_pcCurrentTexture->hTreeItem);
288	288
289		// change this in the old aiMaterial structure, too
290		aiMaterial* pcMat = (aiMaterial*)
291		g_pcAsset->pcScene->mMaterials[m_pcCurrentTexture->iMatIndex];
292
293	289	// update all meshes referencing this material
294	290	for (unsigned int i = 0; i < g_pcAsset->pcScene->mNumMeshes;++i)
295	291	{

1186	1182	{
1187	1183	// get the current selected material
1188	1184	std::vector<Info> apclrOut;
1189		const char* szMatKey;
	1185	const char* szMatKey = "";
1190	1186
1191	1187	switch (LOWORD(wParam))
1192	1188	{

1254	1250	clr.lpCustColors = g_aclCustomColors;
1255	1251	clr.lpfnHook = NULL;
1256	1252	clr.lpTemplateName = NULL;
1257		clr.lCustData = NULL;
	1253	clr.lCustData = 0;
1258	1254
1259	1255	ChooseColor(&clr);
1260	1256

-3

tools/assimp_view/HelpDialog.cpp less more

41	41	#include "stdafx.h"
42	42	#include "assimp_view.h"
43	43
44		#include "RICHEDIT.H"
	44	#include "richedit.h"
45	45
46	46	namespace AssimpView {
47	47

52	52	INT_PTR CALLBACK HelpDialogProc(HWND hwndDlg,UINT uMsg,
53	53	WPARAM wParam,LPARAM lParam)
54	54	{
55		lParam;
	55	(void)lParam;
56	56	switch (uMsg)
57	57	{
58	58	case WM_INITDIALOG:

69	69	SendDlgItemMessage(hwndDlg,IDC_RICHEDIT21,
70	70	EM_SETTEXTEX,(WPARAM)&sInfo,( LPARAM) pData);
71	71
72		UnlockResource(hg);
73	72	FreeResource(hg);
74	73	return TRUE;
75	74	}

-2

tools/assimp_view/LogWindow.cpp less more

40	40
41	41	#include "stdafx.h"
42	42	#include "assimp_view.h"
43		#include "RichEdit.h"
	43	#include "richedit.h"
44	44
45	45	namespace AssimpView {
46	46

69	69	INT_PTR CALLBACK LogDialogProc(HWND hwndDlg,UINT uMsg,
70	70	WPARAM wParam,LPARAM lParam)
71	71	{
72		lParam;
	72	(void)lParam;
73	73	switch (uMsg)
74	74	{
75	75	case WM_INITDIALOG:

-1

tools/assimp_view/Material.cpp less more

298	298	if( !q ) q=strrchr( tmp2,'\\' );
299	299	if( q ){
300	300	strcpy( q+1,p+1 );
301		if(pFile=fopen( tmp2,"r" ) ){
	301	if((pFile=fopen( tmp2,"r" ))){
302	302	fclose( pFile );
303	303	strcpy(p_szString->data,tmp2);
304	304	p_szString->length = strlen(tmp2);

-1

tools/assimp_view/MeshRenderer.cpp less more

42	42	#include "assimp_view.h"
43	43
44	44	#include <map>
	45	#include <functional>
45	46
46	47	namespace AssimpView {
47	48

59	60
60	61	g_piDevice->SetIndices(g_pcAsset->apcMeshes[iIndex]->piIB);
61	62
62		D3DPRIMITIVETYPE type;
	63	D3DPRIMITIVETYPE type = D3DPT_POINTLIST;
63	64	switch (g_pcAsset->pcScene->mMeshes[iIndex]->mPrimitiveTypes) {
64	65	case aiPrimitiveType_POINT:
65	66	type = D3DPT_POINTLIST;break;

+43

-16

tools/assimp_view/MessageProc.cpp less more

40	40
41	41	#include "stdafx.h"
42	42	#include "assimp_view.h"
	43	#include <windowsx.h>
43	44
44	45	namespace AssimpView {
45	46

93	94	ai_assert(sz[0] == '*');
94	95	sprintf(buf,"Software\\Classes\\%s",sz+1);
95	96
96		RegCreateKeyEx(HKEY_CURRENT_USER,buf,NULL,NULL,0,KEY_ALL_ACCESS, NULL, &g_hRegistry,NULL);
	97	RegCreateKeyEx(HKEY_CURRENT_USER,buf,0,NULL,0,KEY_ALL_ACCESS, NULL, &g_hRegistry,NULL);
97	98	RegSetValueEx(g_hRegistry,"",0,REG_SZ,(const BYTE*)"ASSIMPVIEW_CLASS",(DWORD)strlen("ASSIMPVIEW_CLASS")+1);
98	99	RegCloseKey(g_hRegistry);
99	100	}
100		while (sz = strtok(NULL,";"));
101
102		RegCreateKeyEx(HKEY_CURRENT_USER,"Software\\Classes\\ASSIMPVIEW_CLASS",NULL,NULL,0,KEY_ALL_ACCESS, NULL, &g_hRegistry,NULL);
	101	while ((sz = strtok(NULL,";")));
	102
	103	RegCreateKeyEx(HKEY_CURRENT_USER,"Software\\Classes\\ASSIMPVIEW_CLASS",0,NULL,0,KEY_ALL_ACCESS, NULL, &g_hRegistry,NULL);
103	104	RegCloseKey(g_hRegistry);
104	105
105		RegCreateKeyEx(HKEY_CURRENT_USER,"Software\\Classes\\ASSIMPVIEW_CLASS\\shell\\open\\command",NULL,NULL,0,KEY_ALL_ACCESS, NULL, &g_hRegistry,NULL);
	106	RegCreateKeyEx(HKEY_CURRENT_USER,"Software\\Classes\\ASSIMPVIEW_CLASS\\shell\\open\\command",0,NULL,0,KEY_ALL_ACCESS, NULL, &g_hRegistry,NULL);
106	107	RegSetValueEx(g_hRegistry,"",0,REG_SZ,(const BYTE*)szTemp,(DWORD)strlen(szTemp)+1);
107	108	RegCloseKey(g_hRegistry);
108	109

520	521	clr.lpCustColors = g_aclCustomColors;
521	522	clr.lpfnHook = NULL;
522	523	clr.lpTemplateName = NULL;
523		clr.lCustData = NULL;
	524	clr.lCustData = 0;
524	525
525	526	ChooseColor(&clr);
526	527

547	548	clr.lpCustColors = g_aclCustomColors;
548	549	clr.lpfnHook = NULL;
549	550	clr.lpTemplateName = NULL;
550		clr.lCustData = NULL;
	551	clr.lCustData = 0;
551	552
552	553	ChooseColor(&clr);
553	554

983	984	void SetupPPUIState()
984	985	{
985	986
986		// fucking hell, that's ugly. anyone willing to rewrite me from scratch?
	987	// that's ugly. anyone willing to rewrite me from scratch?
987	988	HMENU hMenu = GetMenu(g_hDlg);
988	989	CheckMenuItem(hMenu,ID_VIEWER_PP_JIV,ppsteps & aiProcess_JoinIdenticalVertices ? MF_CHECKED : MF_UNCHECKED);
989	990	CheckMenuItem(hMenu,ID_VIEWER_PP_CTS,ppsteps & aiProcess_CalcTangentSpace ? MF_CHECKED : MF_UNCHECKED);

1039	1040	char szFileName[MAX_PATH*2];
1040	1041	DWORD dwTemp;
1041	1042	if(ERROR_SUCCESS == RegQueryValueEx(g_hRegistry,"ModelExportDest",NULL,NULL,(BYTE*)szFileName,&dwTemp)) {
	1043	ai_assert(dwTemp == MAX_PATH + 1);
	1044	ai_assert(strlen(szFileName) <= MAX_PATH);
	1045
1042	1046	// invent a nice default file name
1043	1047	char* sz = std::max(strrchr(szFileName,'\\'),strrchr(szFileName,'/'));
1044	1048	if (sz) {
1045		strcpy(sz,std::max(strrchr(g_szFileName,'\\'),strrchr(g_szFileName,'/')));
	1049	strncpy(sz,std::max(strrchr(g_szFileName,'\\'),strrchr(g_szFileName,'/')),MAX_PATH);
1046	1050	}
1047	1051	}
1048	1052	else {
1049	1053	// Key was not found. Use the folder where the asset comes from
1050		strcpy(szFileName,g_szFileName);
	1054	strncpy(szFileName,g_szFileName,MAX_PATH);
1051	1055	}
1052	1056
1053	1057	// fix file extension
1054	1058	{ char * const sz = strrchr(szFileName,'.');
1055		if(sz) strcpy(sz+1,e->fileExtension);
	1059	if(sz) {
	1060	ai_assert((sz - &szFileName[0]) + strlen(e->fileExtension) + 1 <= MAX_PATH);
	1061	strcpy(sz+1,e->fileExtension);
	1062	}
1056	1063	}
1057	1064
1058	1065	// build the stupid info string for GetSaveFileName() - can't use sprintf() because the string must contain binary zeros.
1059	1066	char desc[256] = {0};
1060	1067	char* c = strcpy(desc,e->description) + strlen(e->description)+1;
1061	1068	c += sprintf(c,"*.%s",e->fileExtension)+1;
1062		strcpy(c, ".\0");
	1069	strcpy(c, ".\0"); c += 4;
	1070
	1071	ai_assert(c - &desc[0] <= 256);
1063	1072
1064	1073	const std::string ext = "."+std::string(e->fileExtension);
1065	1074	OPENFILENAME sFilename1 = {

1082	1091	}
1083	1092
1084	1093	// export the file
1085		const aiReturn res = exp.Export(g_pcAsset->pcScene,e->id,sFinal.c_str());
	1094	const aiReturn res = exp.Export(g_pcAsset->pcScene,e->id,sFinal.c_str(),
	1095	ppsteps \| /* configurable pp steps */
	1096	aiProcess_GenSmoothNormals \| // generate smooth normal vectors if not existing
	1097	aiProcess_SplitLargeMeshes \| // split large, unrenderable meshes into submeshes
	1098	aiProcess_Triangulate \| // triangulate polygons with more than 3 edges
	1099	aiProcess_ConvertToLeftHanded \| // convert everything to D3D left handed space
	1100	aiProcess_SortByPType \| // make 'clean' meshes which consist of a single typ of primitives
	1101	0
	1102	);
1086	1103	if (res == aiReturn_SUCCESS) {
1087	1104	CLogDisplay::Instance().AddEntry("[INFO] Exported file " + sFinal,D3DCOLOR_ARGB(0xFF,0x00,0xFF,0x00));
1088	1105	return;

1118	1135
1119	1136	// store the key in a global variable for later use
1120	1137	RegCreateKeyEx(HKEY_CURRENT_USER,"Software\\ASSIMP\\Viewer",
1121		NULL,NULL,0,KEY_ALL_ACCESS, NULL, &g_hRegistry,NULL);
	1138	0,NULL,0,KEY_ALL_ACCESS, NULL, &g_hRegistry,NULL);
1122	1139
1123	1140	if(ERROR_SUCCESS != RegQueryValueEx(g_hRegistry,"LastUIState",NULL,NULL,
1124	1141	(BYTE*)&dwValue,&dwTemp))

1814	1831	PostQuitMessage(0);
1815	1832	DestroyWindow(hwndDlg);
1816	1833	}
	1834	else if (IDC_COMBO1 == LOWORD(wParam))
	1835	{
	1836	if(HIWORD(wParam) == CBN_SELCHANGE) {
	1837	const size_t sel = static_cast<size_t>(ComboBox_GetCurSel(GetDlgItem(hwndDlg,IDC_COMBO1)));
	1838	if(g_pcAsset) {
	1839	g_pcAsset->mAnimator->SetAnimIndex(sel);
	1840	SendDlgItemMessage(hwndDlg,IDC_SLIDERANIM,TBM_SETPOS,TRUE,0);
	1841	}
	1842	}
	1843	}
1817	1844	else if (ID_VIEWER_RESETVIEW == LOWORD(wParam))
1818	1845	{
1819	1846	g_sCamera.vPos = aiVector3D(0.0f,0.0f,-10.0f);

1904	1931	}
1905	1932	}
1906	1933
1907		// fucking hell, this is ugly. anyone willing to rewrite it from scratch using wxwidgets or similar?
	1934	// this is ugly. anyone willing to rewrite it from scratch using wxwidgets or similar?
1908	1935	else if (ID_VIEWER_PP_JIV == LOWORD(wParam)) {
1909	1936	ppsteps ^= aiProcess_JoinIdenticalVertices;
1910	1937	CheckMenuItem(hMenu,ID_VIEWER_PP_JIV,ppsteps & aiProcess_JoinIdenticalVertices ? MF_CHECKED : MF_UNCHECKED);

2399	2426	};
2400	2427	DWORD dwTemp = MAX_PATH;
2401	2428	RegCreateKeyEx(HKEY_CURRENT_USER,
2402		"Software\\ASSIMP\\Viewer",NULL,NULL,0,KEY_ALL_ACCESS, NULL, &g_hRegistry,NULL);
	2429	"Software\\ASSIMP\\Viewer",0,NULL,0,KEY_ALL_ACCESS, NULL, &g_hRegistry,NULL);
2403	2430	if(ERROR_SUCCESS == RegQueryValueEx(g_hRegistry,"LastSkyBoxSrc",NULL,NULL,
2404	2431	(BYTE*)szFileName,&dwTemp) && '\0' != szFileName[0])
2405	2432	{

-3

tools/assimp_view/RenderOptions.h less more

59	59	bSuperSample (false),
60	60	bRenderMats (true),
61	61	bRenderNormals (false),
62		eDrawMode (NORMAL),
63	62	b3Lights (false),
64	63	bLightRotate (false),
65	64	bRotate (true),
66	65	bLowQuality (false),
67	66	bNoSpecular (false),
68	67	bStereoView (false),
	68	bNoAlphaBlending(false),
	69	eDrawMode (NORMAL),
69	70	bCulling (false),
70		bSkeleton (false),
71		bNoAlphaBlending(false)
	71	bSkeleton (false)
72	72
73	73	{}
74	74

-5

tools/assimp_view/assimp_view.cpp less more

105	105	aiVector3D g_avLightDirs[1] =
106	106	{ aiVector3D(-0.5f,0.6f,0.2f) };
107	107
108		extern D3DCOLOR g_avLightColors[3] =
	108	D3DCOLOR g_avLightColors[3] =
109	109	{
110	110	D3DCOLOR_ARGB(0xFF,0xFF,0xFF,0xFF),
111	111	D3DCOLOR_ARGB(0xFF,0xFF,0x00,0x00),

871	871	g_pcTexture = NULL;
872	872	g_szImageMask = NULL;
873	873
874		UnlockResource(hg);
875	874	FreeResource(hg);
876	875	return 0;
877	876	}
878	877
879		UnlockResource(hg);
880	878	FreeResource(hg);
881	879
882	880	D3DSURFACE_DESC sDesc;

908	906	D3DCOLOR_ARGB(0xFF,0xFF,0,0));
909	907	g_szImageMask = NULL;
910	908
911		UnlockResource(hg);
912	909	FreeResource(hg);
913	910	return 0;
914	911	}
915	912
916		UnlockResource(hg);
917	913	FreeResource(hg);
918	914
919	915	// lock the texture and copy it to get a pointer

+12

-10

tools/assimp_view/stdafx.h less more

43	43
44	44	#include <d3d9.h>
45	45	#include <d3dx9.h>
46		#include <D3DX9Mesh.h>
	46	#include <d3dx9mesh.h>
47	47
48	48	// ShellExecute()
49	49	#include <shellapi.h>
50	50	#include <commctrl.h>
51	51
52	52	// GetOpenFileName()
53		#include <Commdlg.h>
	53	#include <commdlg.h>
54	54	#include <algorithm>
55	55	#include <mmsystem.h>
56	56

59	59	#include <list>
60	60	#include <vector>
61	61
	62	#if defined _MSC_VER
62	63	// Windows CommonControls 6.0 Manifest Extensions
63		#if defined _M_IX86
64		# pragma comment(linker,"/manifestdependency:\"type='win32' name='Microsoft.Windows.Common-Controls' version='6.0.0.0' processorArchitecture='x86' publicKeyToken='6595b64144ccf1df' language='*'\"")
65		#elif defined _M_IA64
66		# pragma comment(linker,"/manifestdependency:\"type='win32' name='Microsoft.Windows.Common-Controls' version='6.0.0.0' processorArchitecture='ia64' publicKeyToken='6595b64144ccf1df' language='*'\"")
67		#elif defined _M_X64
68		# pragma comment(linker,"/manifestdependency:\"type='win32' name='Microsoft.Windows.Common-Controls' version='6.0.0.0' processorArchitecture='amd64' publicKeyToken='6595b64144ccf1df' language='*'\"")
69		#else
70		# pragma comment(linker,"/manifestdependency:\"type='win32' name='Microsoft.Windows.Common-Controls' version='6.0.0.0' processorArchitecture='' publicKeyToken='6595b64144ccf1df' language=''\"")
	64	# if defined _M_IX86
	65	# pragma comment(linker,"/manifestdependency:\"type='win32' name='Microsoft.Windows.Common-Controls' version='6.0.0.0' processorArchitecture='x86' publicKeyToken='6595b64144ccf1df' language='*'\"")
	66	# elif defined _M_IA64
	67	# pragma comment(linker,"/manifestdependency:\"type='win32' name='Microsoft.Windows.Common-Controls' version='6.0.0.0' processorArchitecture='ia64' publicKeyToken='6595b64144ccf1df' language='*'\"")
	68	# elif defined _M_X64
	69	# pragma comment(linker,"/manifestdependency:\"type='win32' name='Microsoft.Windows.Common-Controls' version='6.0.0.0' processorArchitecture='amd64' publicKeyToken='6595b64144ccf1df' language='*'\"")
	70	# else
	71	# pragma comment(linker,"/manifestdependency:\"type='win32' name='Microsoft.Windows.Common-Controls' version='6.0.0.0' processorArchitecture='' publicKeyToken='6595b64144ccf1df' language=''\"")
	72	# endif
71	73	#endif

-1891

~~workspaces/vc9/UnitTest.vcproj~~ less more

0		<?xml version="1.0" encoding="Windows-1252"?>
1		<VisualStudioProject
2		ProjectType="Visual C++"
3		Version="9.00"
4		Name="unit"
5		ProjectGUID="{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}"
6		RootNamespace="UnitTest"
7		Keyword="Win32Proj"
8		TargetFrameworkVersion="131072"
9		>
10		<Platforms>
11		<Platform
12		Name="Win32"
13		/>
14		<Platform
15		Name="x64"
16		/>
17		</Platforms>
18		<ToolFiles>
19		</ToolFiles>
20		<Configurations>
21		<Configuration
22		Name="debug\|Win32"
23		OutputDirectory="./../../bin/$(ProjectName)_$(ConfigurationName)_$(PlatformName)"
24		IntermediateDirectory="./../../obj/$(ProjectName)_$(ConfigurationName)_$(PlatformName)"
25		ConfigurationType="1"
26		InheritedPropertySheets=".\shared\UnitTest.vsprops;.\shared\FastSTL.vsprops"
27		CharacterSet="1"
28		>
29		<Tool
30		Name="VCPreBuildEventTool"
31		/>
32		<Tool
33		Name="VCCustomBuildTool"
34		/>
35		<Tool
36		Name="VCXMLDataGeneratorTool"
37		/>
38		<Tool
39		Name="VCWebServiceProxyGeneratorTool"
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1739		</FileConfiguration>
1740		</File>
1741		</Filter>
1742		</Filter>
1743		<Filter
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1745		>
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1803		>
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1818		Name="release-noboost-st\|Win32"
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1865		<FileConfiguration
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1888		<Globals>
1889		</Globals>
1890		</VisualStudioProject>

-172

~~workspaces/vc9/assimp.sln~~ less more

0
1		Microsoft Visual Studio Solution File, Format Version 10.00
2		# Visual Studio 2008
3		Project("{8BC9CEB8-8B4A-11D0-8D11-00A0C91BC942}") = "assimpview", "assimp_view.vcproj", "{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}"
4		ProjectSection(ProjectDependencies) = postProject
5		{5691E159-2D9B-407F-971F-EA5C592DC524} = {5691E159-2D9B-407F-971F-EA5C592DC524}
6		EndProjectSection
7		EndProject
8		Project("{8BC9CEB8-8B4A-11D0-8D11-00A0C91BC942}") = "assimp", "assimp.vcproj", "{5691E159-2D9B-407F-971F-EA5C592DC524}"
9		EndProject
10		Project("{8BC9CEB8-8B4A-11D0-8D11-00A0C91BC942}") = "unit", "UnitTest.vcproj", "{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}"
11		ProjectSection(ProjectDependencies) = postProject
12		{5691E159-2D9B-407F-971F-EA5C592DC524} = {5691E159-2D9B-407F-971F-EA5C592DC524}
13		EndProjectSection
14		EndProject
15		Project("{8BC9CEB8-8B4A-11D0-8D11-00A0C91BC942}") = "assimpcmd", "assimp_cmd.vcproj", "{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}"
16		ProjectSection(ProjectDependencies) = postProject
17		{5691E159-2D9B-407F-971F-EA5C592DC524} = {5691E159-2D9B-407F-971F-EA5C592DC524}
18		EndProjectSection
19		EndProject
20		Global
21		GlobalSection(SolutionConfigurationPlatforms) = preSolution
22		debug\|Win32 = debug\|Win32
23		debug\|x64 = debug\|x64
24		debug-dll\|Win32 = debug-dll\|Win32
25		debug-dll\|x64 = debug-dll\|x64
26		debug-noboost-st\|Win32 = debug-noboost-st\|Win32
27		debug-noboost-st\|x64 = debug-noboost-st\|x64
28		debug-st\|Win32 = debug-st\|Win32
29		debug-st\|x64 = debug-st\|x64
30		release\|Win32 = release\|Win32
31		release\|x64 = release\|x64
32		release-dll\|Win32 = release-dll\|Win32
33		release-dll\|x64 = release-dll\|x64
34		release-noboost-st\|Win32 = release-noboost-st\|Win32
35		release-noboost-st\|x64 = release-noboost-st\|x64
36		release-st\|Win32 = release-st\|Win32
37		release-st\|x64 = release-st\|x64
38		EndGlobalSection
39		GlobalSection(ProjectConfigurationPlatforms) = postSolution
40		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug\|Win32.ActiveCfg = debug\|Win32
41		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug\|Win32.Build.0 = debug\|Win32
42		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug\|x64.ActiveCfg = debug\|x64
43		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug\|x64.Build.0 = debug\|x64
44		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-dll\|Win32.ActiveCfg = debug-dll\|Win32
45		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-dll\|Win32.Build.0 = debug-dll\|Win32
46		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-dll\|x64.ActiveCfg = debug-dll\|x64
47		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-dll\|x64.Build.0 = debug-dll\|x64
48		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-noboost-st\|Win32.ActiveCfg = debug-noboost-st\|Win32
49		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-noboost-st\|Win32.Build.0 = debug-noboost-st\|Win32
50		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-noboost-st\|x64.ActiveCfg = debug-noboost-st\|x64
51		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-noboost-st\|x64.Build.0 = debug-noboost-st\|x64
52		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-st\|Win32.ActiveCfg = debug-st\|Win32
53		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-st\|Win32.Build.0 = debug-st\|Win32
54		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-st\|x64.ActiveCfg = debug-st\|x64
55		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.debug-st\|x64.Build.0 = debug-st\|x64
56		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release\|Win32.ActiveCfg = release\|Win32
57		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release\|Win32.Build.0 = release\|Win32
58		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release\|x64.ActiveCfg = release\|x64
59		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release\|x64.Build.0 = release\|x64
60		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-dll\|Win32.ActiveCfg = release-dll\|Win32
61		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-dll\|Win32.Build.0 = release-dll\|Win32
62		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-dll\|x64.ActiveCfg = release-dll\|x64
63		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-dll\|x64.Build.0 = release-dll\|x64
64		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-noboost-st\|Win32.ActiveCfg = release-noboost-st\|Win32
65		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-noboost-st\|Win32.Build.0 = release-noboost-st\|Win32
66		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-noboost-st\|x64.ActiveCfg = release-noboost-st\|x64
67		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-noboost-st\|x64.Build.0 = release-noboost-st\|x64
68		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-st\|Win32.ActiveCfg = release-st\|Win32
69		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-st\|Win32.Build.0 = release-st\|Win32
70		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-st\|x64.ActiveCfg = release-st\|x64
71		{B17B959B-BB8A-4596-AF0F-A8C8DBBC3C5E}.release-st\|x64.Build.0 = release-st\|x64
72		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug\|Win32.ActiveCfg = debug\|Win32
73		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug\|Win32.Build.0 = debug\|Win32
74		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug\|x64.ActiveCfg = debug\|x64
75		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug\|x64.Build.0 = debug\|x64
76		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-dll\|Win32.ActiveCfg = debug-dll\|Win32
77		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-dll\|Win32.Build.0 = debug-dll\|Win32
78		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-dll\|x64.ActiveCfg = debug-dll\|x64
79		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-dll\|x64.Build.0 = debug-dll\|x64
80		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-noboost-st\|Win32.ActiveCfg = debug-noboost-st\|Win32
81		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-noboost-st\|Win32.Build.0 = debug-noboost-st\|Win32
82		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-noboost-st\|x64.ActiveCfg = debug-noboost-st\|x64
83		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-noboost-st\|x64.Build.0 = debug-noboost-st\|x64
84		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-st\|Win32.ActiveCfg = debug-st\|Win32
85		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-st\|Win32.Build.0 = debug-st\|Win32
86		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-st\|x64.ActiveCfg = debug-st\|x64
87		{5691E159-2D9B-407F-971F-EA5C592DC524}.debug-st\|x64.Build.0 = debug-st\|x64
88		{5691E159-2D9B-407F-971F-EA5C592DC524}.release\|Win32.ActiveCfg = release\|Win32
89		{5691E159-2D9B-407F-971F-EA5C592DC524}.release\|Win32.Build.0 = release\|Win32
90		{5691E159-2D9B-407F-971F-EA5C592DC524}.release\|x64.ActiveCfg = release\|x64
91		{5691E159-2D9B-407F-971F-EA5C592DC524}.release\|x64.Build.0 = release\|x64
92		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-dll\|Win32.ActiveCfg = release-dll\|Win32
93		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-dll\|Win32.Build.0 = release-dll\|Win32
94		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-dll\|x64.ActiveCfg = release-dll\|x64
95		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-dll\|x64.Build.0 = release-dll\|x64
96		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-noboost-st\|Win32.ActiveCfg = release-noboost-st\|Win32
97		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-noboost-st\|Win32.Build.0 = release-noboost-st\|Win32
98		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-noboost-st\|x64.ActiveCfg = release-noboost-st\|x64
99		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-noboost-st\|x64.Build.0 = release-noboost-st\|x64
100		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-st\|Win32.ActiveCfg = release-st\|Win32
101		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-st\|Win32.Build.0 = release-st\|Win32
102		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-st\|x64.ActiveCfg = release-st\|x64
103		{5691E159-2D9B-407F-971F-EA5C592DC524}.release-st\|x64.Build.0 = release-st\|x64
104		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug\|Win32.ActiveCfg = debug\|Win32
105		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug\|Win32.Build.0 = debug\|Win32
106		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug\|x64.ActiveCfg = debug\|x64
107		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug\|x64.Build.0 = debug\|x64
108		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-dll\|Win32.ActiveCfg = debug-dll\|Win32
109		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-dll\|x64.ActiveCfg = debug-dll\|x64
110		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-dll\|x64.Build.0 = debug-dll\|x64
111		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-noboost-st\|Win32.ActiveCfg = debug-noboost-st\|Win32
112		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-noboost-st\|Win32.Build.0 = debug-noboost-st\|Win32
113		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-noboost-st\|x64.ActiveCfg = debug-noboost-st\|x64
114		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-noboost-st\|x64.Build.0 = debug-noboost-st\|x64
115		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-st\|Win32.ActiveCfg = debug-st\|Win32
116		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-st\|Win32.Build.0 = debug-st\|Win32
117		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-st\|x64.ActiveCfg = debug-st\|x64
118		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.debug-st\|x64.Build.0 = debug-st\|x64
119		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release\|Win32.ActiveCfg = release\|Win32
120		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release\|Win32.Build.0 = release\|Win32
121		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release\|x64.ActiveCfg = release\|x64
122		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release\|x64.Build.0 = release\|x64
123		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-dll\|Win32.ActiveCfg = release-dll\|Win32
124		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-dll\|Win32.Build.0 = release-dll\|Win32
125		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-dll\|x64.ActiveCfg = release-dll\|x64
126		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-dll\|x64.Build.0 = release-dll\|x64
127		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-noboost-st\|Win32.ActiveCfg = release-noboost-st\|Win32
128		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-noboost-st\|Win32.Build.0 = release-noboost-st\|Win32
129		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-noboost-st\|x64.ActiveCfg = release-noboost-st\|x64
130		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-noboost-st\|x64.Build.0 = release-noboost-st\|x64
131		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-st\|Win32.ActiveCfg = release-st\|Win32
132		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-st\|Win32.Build.0 = release-st\|Win32
133		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-st\|x64.ActiveCfg = release-st\|x64
134		{9B9D1C90-8A03-409A-B547-AE7B48B90F1A}.release-st\|x64.Build.0 = release-st\|x64
135		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug\|Win32.ActiveCfg = Debug\|Win32
136		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug\|Win32.Build.0 = Debug\|Win32
137		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug\|x64.ActiveCfg = Debug\|x64
138		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug\|x64.Build.0 = Debug\|x64
139		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-dll\|Win32.ActiveCfg = debug-dll\|Win32
140		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-dll\|Win32.Build.0 = debug-dll\|Win32
141		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-dll\|x64.ActiveCfg = debug-dll\|x64
142		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-dll\|x64.Build.0 = debug-dll\|x64
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144		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-noboost-st\|Win32.Build.0 = debug-noboost-st\|Win32
145		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-noboost-st\|x64.ActiveCfg = debug-noboost-st\|x64
146		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-noboost-st\|x64.Build.0 = debug-noboost-st\|x64
147		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-st\|Win32.ActiveCfg = debug-st\|Win32
148		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-st\|Win32.Build.0 = debug-st\|Win32
149		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-st\|x64.ActiveCfg = debug-st\|x64
150		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.debug-st\|x64.Build.0 = debug-st\|x64
151		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release\|Win32.ActiveCfg = Release\|Win32
152		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release\|Win32.Build.0 = Release\|Win32
153		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release\|x64.ActiveCfg = Release\|x64
154		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release\|x64.Build.0 = Release\|x64
155		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-dll\|Win32.ActiveCfg = release-dll\|Win32
156		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-dll\|Win32.Build.0 = release-dll\|Win32
157		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-dll\|x64.ActiveCfg = release-dll\|x64
158		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-dll\|x64.Build.0 = release-dll\|x64
159		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-noboost-st\|Win32.ActiveCfg = release-noboost-st\|Win32
160		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-noboost-st\|Win32.Build.0 = release-noboost-st\|Win32
161		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-noboost-st\|x64.ActiveCfg = release-noboost-st\|x64
162		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-noboost-st\|x64.Build.0 = release-noboost-st\|x64
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164		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-st\|Win32.Build.0 = release-st\|Win32
165		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-st\|x64.ActiveCfg = release-st\|x64
166		{7C8F7B44-C990-4EA8-A2A5-9028472E0AD3}.release-st\|x64.Build.0 = release-st\|x64
167		EndGlobalSection
168		GlobalSection(SolutionProperties) = preSolution
169		HideSolutionNode = FALSE
170		EndGlobalSection
171		EndGlobal

-5136

~~workspaces/vc9/assimp.vcproj~~ less more

0		<?xml version="1.0" encoding="Windows-1252"?>
1		<VisualStudioProject
2		ProjectType="Visual C++"
3		Version="9.00"
4		Name="assimp"
5		ProjectGUID="{5691E159-2D9B-407F-971F-EA5C592DC524}"
6		RootNamespace="assimp"
7		TargetFrameworkVersion="131072"
8		>
9		<Platforms>
10		<Platform
11		Name="Win32"
12		/>
13		<Platform
14		Name="x64"
15		/>
16		</Platforms>
17		<ToolFiles>
18		</ToolFiles>
19		<Configurations>
20		<Configuration
21		Name="debug\|Win32"
22		ConfigurationType="4"
23		InheritedPropertySheets=".\shared\LibShared.vsprops;.\shared\FastSTL.vsprops"
24		>
25		<Tool
26		Name="VCPreBuildEventTool"
27		/>
28		<Tool
29		Name="VCCustomBuildTool"
30		/>
31		<Tool
32		Name="VCXMLDataGeneratorTool"
33		/>
34		<Tool
35		Name="VCWebServiceProxyGeneratorTool"
36		/>
37		<Tool
38		Name="VCMIDLTool"
39		/>
40		<Tool
41		Name="VCCLCompilerTool"
42		Optimization="0"
43		AdditionalIncludeDirectories="..\..\contrib\unzip"
44		PreprocessorDefinitions="DEBUG;_SCL_SECURE_NO_WARNINGS;_CRT_SECURE_NO_WARNINGS;WIN32"
45		BasicRuntimeChecks="3"
46		SmallerTypeCheck="true"
47		RuntimeLibrary="3"
48		EnableFunctionLevelLinking="true"
49		FloatingPointModel="2"
50		UsePrecompiledHeader="2"
51		PrecompiledHeaderThrough="AssimpPCH.h"
52		WarningLevel="3"
53		Detect64BitPortabilityProblems="false"
54		DebugInformationFormat="4"
55		/>
56		<Tool
57		Name="VCManagedResourceCompilerTool"
58		/>
59		<Tool
60		Name="VCResourceCompilerTool"
61		/>
62		<Tool
63		Name="VCPreLinkEventTool"
64		/>
65		<Tool
66		Name="VCLibrarianTool"
67		/>
68		<Tool
69		Name="VCALinkTool"
70		/>
71		<Tool
72		Name="VCXDCMakeTool"
73		/>
74		<Tool
75		Name="VCBscMakeTool"
76		/>
77		<Tool
78		Name="VCFxCopTool"
79		/>
80		<Tool
81		Name="VCPostBuildEventTool"
82		/>
83		</Configuration>
84		<Configuration
85		Name="debug\|x64"
86		OutputDirectory="./../../lib/$(ProjectName)_$(ConfigurationName)_$(PlatformName)"
87		IntermediateDirectory="./../../obj/$(ProjectName)_$(ConfigurationName)_$(PlatformName)"
88		ConfigurationType="4"
89		>
90		<Tool
91		Name="VCPreBuildEventTool"
92		/>
93		<Tool
94		Name="VCCustomBuildTool"
95		/>
96		<Tool
97		Name="VCXMLDataGeneratorTool"
98		/>
99		<Tool
100		Name="VCWebServiceProxyGeneratorTool"
101		/>
102		<Tool
103		Name="VCMIDLTool"
104		TargetEnvironment="3"
105		/>
106		<Tool
107		Name="VCCLCompilerTool"
108		Optimization="0"
109		AdditionalIncludeDirectories="..\..\contrib\unzip"
110		PreprocessorDefinitions="DEBUG, _SCL_SECURE_NO_WARNINGS, _CRT_SECURE_NO_WARNINGS,WIN32"
111		BasicRuntimeChecks="3"
112		SmallerTypeCheck="true"
113		RuntimeLibrary="3"
114		EnableFunctionLevelLinking="true"
115		WarningLevel="3"
116		DebugInformationFormat="3"
117		/>
118		<Tool
119		Name="VCManagedResourceCompilerTool"
120		/>
121		<Tool
122		Name="VCResourceCompilerTool"
123		/>
124		<Tool
125		Name="VCPreLinkEventTool"
126		/>
127		<Tool
128		Name="VCLibrarianTool"
129		/>
130		<Tool
131		Name="VCALinkTool"
132		/>
133		<Tool
134		Name="VCXDCMakeTool"
135		/>
136		<Tool
137		Name="VCBscMakeTool"
138		/>
139		<Tool
140		Name="VCFxCopTool"
141		/>
142		<Tool
143		Name="VCPostBuildEventTool"
144		/>
145		</Configuration>
146		<Configuration
147		Name="release\|Win32"
148		IntermediateDirectory="$(ConfigurationName)"
149		ConfigurationType="4"
150		InheritedPropertySheets=".\shared\LibShared.vsprops;.\shared\FastSTL.vsprops"
151		WholeProgramOptimization="0"
152		>
153		<Tool
154		Name="VCPreBuildEventTool"
155		/>
156		<Tool
157		Name="VCCustomBuildTool"
158		/>
159		<Tool
160		Name="VCXMLDataGeneratorTool"
161		/>
162		<Tool
163		Name="VCWebServiceProxyGeneratorTool"
164		/>
165		<Tool
166		Name="VCMIDLTool"
167		/>
168		<Tool
169		Name="VCCLCompilerTool"
170		InlineFunctionExpansion="2"
171		EnableIntrinsicFunctions="true"
172		FavorSizeOrSpeed="0"
173		OmitFramePointers="true"
174		WholeProgramOptimization="false"
175		AdditionalIncludeDirectories="..\..\contrib\unzip"
176		PreprocessorDefinitions="NDEBUG;_SCL_SECURE_NO_WARNINGS;_CRT_SECURE_NO_WARNINGS;_SECURE_SCL=0;WIN32"
177		StringPooling="true"
178		RuntimeLibrary="2"
179		BufferSecurityCheck="false"
180		EnableEnhancedInstructionSet="2"
181		FloatingPointModel="2"
182		UsePrecompiledHeader="2"
183		PrecompiledHeaderThrough="AssimpPCH.h"
184		WarningLevel="3"
185		Detect64BitPortabilityProblems="false"
186		/>
187		<Tool
188		Name="VCManagedResourceCompilerTool"
189		/>
190		<Tool
191		Name="VCResourceCompilerTool"
192		/>
193		<Tool
194		Name="VCPreLinkEventTool"
195		/>
196		<Tool
197		Name="VCLibrarianTool"
198		/>
199		<Tool
200		Name="VCALinkTool"
201		/>
202		<Tool
203		Name="VCXDCMakeTool"
204		/>
205		<Tool
206		Name="VCBscMakeTool"
207		/>
208		<Tool
209		Name="VCFxCopTool"
210		/>
211		<Tool
212		Name="VCPostBuildEventTool"
213		/>
214		</Configuration>
215		<Configuration
216		Name="release\|x64"
217		ConfigurationType="4"
218		InheritedPropertySheets=".\shared\LibShared.vsprops"
219		WholeProgramOptimization="0"
220		>
221		<Tool
222		Name="VCPreBuildEventTool"
223		/>
224		<Tool
225		Name="VCCustomBuildTool"
226		/>
227		<Tool
228		Name="VCXMLDataGeneratorTool"
229		/>
230		<Tool
231		Name="VCWebServiceProxyGeneratorTool"
232		/>
233		<Tool
234		Name="VCMIDLTool"
235		TargetEnvironment="3"
236		/>
237		<Tool
238		Name="VCCLCompilerTool"
239		InlineFunctionExpansion="2"
240		EnableIntrinsicFunctions="true"
241		FavorSizeOrSpeed="1"
242		AdditionalIncludeDirectories="..\..\contrib\unzip"
243		PreprocessorDefinitions="NDEBUG, _SCL_SECURE_NO_WARNINGS, _CRT_SECURE_NO_WARNINGS,WIN32"
244		StringPooling="true"
245		RuntimeLibrary="2"
246		BufferSecurityCheck="false"
247		EnableEnhancedInstructionSet="0"
248		FloatingPointModel="2"
249		UsePrecompiledHeader="2"
250		PrecompiledHeaderThrough="AssimpPCH.h"
251		WarningLevel="3"
252		/>
253		<Tool
254		Name="VCManagedResourceCompilerTool"
255		/>
256		<Tool
257		Name="VCResourceCompilerTool"
258		/>
259		<Tool
260		Name="VCPreLinkEventTool"
261		/>
262		<Tool
263		Name="VCLibrarianTool"
264		/>
265		<Tool
266		Name="VCALinkTool"
267		/>
268		<Tool
269		Name="VCXDCMakeTool"
270		/>
271		<Tool
272		Name="VCBscMakeTool"
273		/>
274		<Tool
275		Name="VCFxCopTool"
276		/>
277		<Tool
278		Name="VCPostBuildEventTool"
279		/>
280		</Configuration>
281		<Configuration
282		Name="release-dll\|Win32"
283		ConfigurationType="2"
284		InheritedPropertySheets=".\shared\DllShared.vsprops;.\shared\FastSTL.vsprops"
285		WholeProgramOptimization="0"
286		>
287		<Tool
288		Name="VCPreBuildEventTool"
289		/>
290		<Tool
291		Name="VCCustomBuildTool"
292		/>
293		<Tool
294		Name="VCXMLDataGeneratorTool"
295		/>
296		<Tool
297		Name="VCWebServiceProxyGeneratorTool"
298		/>
299		<Tool
300		Name="VCMIDLTool"
301		/>
302		<Tool
303		Name="VCCLCompilerTool"
304		InlineFunctionExpansion="2"
305		EnableIntrinsicFunctions="true"
306		FavorSizeOrSpeed="0"
307		OmitFramePointers="true"
308		AdditionalIncludeDirectories="..\..\contrib\unzip"
309		PreprocessorDefinitions="NDEBUG;_SCL_SECURE_NO_WARNINGS;_CRT_SECURE_NO_WARNINGS;WIN32;ASSIMP_BUILD_DLL_EXPORT"
310		StringPooling="true"
311		RuntimeLibrary="2"
312		BufferSecurityCheck="false"
313		EnableEnhancedInstructionSet="2"
314		FloatingPointModel="2"
315		UsePrecompiledHeader="2"
316		PrecompiledHeaderThrough="AssimpPCH.h"
317		WarningLevel="3"
318		Detect64BitPortabilityProblems="false"
319		/>
320		<Tool
321		Name="VCManagedResourceCompilerTool"
322		/>
323		<Tool
324		Name="VCResourceCompilerTool"
325		/>
326		<Tool
327		Name="VCPreLinkEventTool"
328		/>
329		<Tool
330		Name="VCLinkerTool"
331		OutputFile="$(OutDir)\Assimp32.dll"
332		GenerateDebugInformation="true"
333		RandomizedBaseAddress="1"
334		DataExecutionPrevention="0"
335		ImportLibrary="$(SolutionDir)..\..\lib\$(ProjectName)_$(ConfigurationName)_$(PlatformName)\assimp.lib"
336		/>
337		<Tool
338		Name="VCALinkTool"
339		/>
340		<Tool
341		Name="VCManifestTool"
342		/>
343		<Tool
344		Name="VCXDCMakeTool"
345		/>
346		<Tool
347		Name="VCBscMakeTool"
348		/>
349		<Tool
350		Name="VCFxCopTool"
351		/>
352		<Tool
353		Name="VCAppVerifierTool"
354		/>
355		<Tool
356		Name="VCPostBuildEventTool"
357		CommandLine="mkdir "$(SolutionDir)..\..\bin\unit_$(ConfigurationName)_$(PlatformName)" mkdir "$(SolutionDir)..\..\bin\assimpview_$(ConfigurationName)_$(PlatformName)" mkdir "$(SolutionDir)..\..\bin\assimpcmd_$(ConfigurationName)_$(PlatformName)" copy "$(OutDir)\$(TargetFileName)" "$(SolutionDir)..\..\bin\unit_$(ConfigurationName)_$(PlatformName)\" copy "$(OutDir)\$(TargetFileName)" "$(SolutionDir)..\..\bin\assimpview_$(ConfigurationName)_$(PlatformName)\" copy "$(OutDir)\$(TargetFileName)" "$(SolutionDir)..\..\bin\assimpcmd_$(ConfigurationName)_$(PlatformName)\" "
358		/>
359		</Configuration>
360		<Configuration
361		Name="release-dll\|x64"
362		ConfigurationType="2"
363		InheritedPropertySheets=".\shared\DllShared.vsprops"
364		WholeProgramOptimization="0"
365		>
366		<Tool
367		Name="VCPreBuildEventTool"
368		/>
369		<Tool
370		Name="VCCustomBuildTool"
371		/>
372		<Tool
373		Name="VCXMLDataGeneratorTool"
374		/>
375		<Tool
376		Name="VCWebServiceProxyGeneratorTool"
377		/>
378		<Tool
379		Name="VCMIDLTool"
380		TargetEnvironment="3"
381		/>
382		<Tool
383		Name="VCCLCompilerTool"
384		Optimization="3"
385		InlineFunctionExpansion="2"
386		EnableIntrinsicFunctions="true"
387		FavorSizeOrSpeed="1"
388		AdditionalIncludeDirectories="..\..\contrib\unzip"
389		PreprocessorDefinitions="NDEBUG;_SCL_SECURE_NO_WARNINGS;_CRT_SECURE_NO_WARNINGS;WIN32;ASSIMP_BUILD_DLL_EXPORT"
390		StringPooling="true"
391		RuntimeLibrary="2"
392		BufferSecurityCheck="false"
393		EnableEnhancedInstructionSet="0"
394		FloatingPointModel="2"
395		WarningLevel="3"
396		/>
397		<Tool
398		Name="VCManagedResourceCompilerTool"
399		/>
400		<Tool
401		Name="VCResourceCompilerTool"
402		/>
403		<Tool
404		Name="VCPreLinkEventTool"
405		/>
406		<Tool
407		Name="VCLinkerTool"
408		OutputFile="$(OutDir)\Assimp64.dll"
409		ImportLibrary="$(SolutionDir)..\..\lib\$(ProjectName)_$(ConfigurationName)_$(PlatformName)\assimp.lib"
410		TargetMachine="17"
411		/>
412		<Tool
413		Name="VCALinkTool"
414		/>
415		<Tool
416		Name="VCManifestTool"
417		/>
418		<Tool
419		Name="VCXDCMakeTool"
420		/>
421		<Tool
422		Name="VCBscMakeTool"
423		/>
424		<Tool
425		Name="VCFxCopTool"
426		/>
427		<Tool
428		Name="VCAppVerifierTool"
429		/>
430		<Tool
431		Name="VCPostBuildEventTool"
432		CommandLine="mkdir "$(SolutionDir)..\..\bin\unit_$(ConfigurationName)_$(PlatformName)" mkdir "$(SolutionDir)..\..\bin\assimpview_$(ConfigurationName)_$(PlatformName)" mkdir "$(SolutionDir)..\..\bin\assimpcmd_$(ConfigurationName)_$(PlatformName)" copy "$(OutDir)\$(TargetFileName)" "$(SolutionDir)..\..\bin\unit_$(ConfigurationName)_$(PlatformName)\" copy "$(OutDir)\$(TargetFileName)" "$(SolutionDir)..\..\bin\assimpview_$(ConfigurationName)_$(PlatformName)\" copy "$(OutDir)\$(TargetFileName)" "$(SolutionDir)..\..\bin\assimpcmd_$(ConfigurationName)_$(PlatformName)\" "
433		/>
434		</Configuration>
435		<Configuration
436		Name="debug-dll\|Win32"
437		ConfigurationType="2"
438		InheritedPropertySheets=".\shared\DllShared.vsprops;.\shared\FastSTL.vsprops"
439		>
440		<Tool
441		Name="VCPreBuildEventTool"
442		/>
443		<Tool
444		Name="VCCustomBuildTool"
445		/>
446		<Tool
447		Name="VCXMLDataGeneratorTool"
448		/>
449		<Tool
450		Name="VCWebServiceProxyGeneratorTool"
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5093		<File
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5119		</Filter>
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5132		</Files>
5133		<Globals>
5134		</Globals>
5135		</VisualStudioProject>

-1493

~~workspaces/vc9/assimp_cmd.vcproj~~ less more

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1490		<Globals>
1491		</Globals>
1492		</VisualStudioProject>

-1642

~~workspaces/vc9/assimp_view.vcproj~~ less more

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1		<VisualStudioProject
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4		Name="assimpview"
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2758		745FF846113ECB080020C31B /* ByteSwap.h in Headers */,
2759		745FF847113ECB080020C31B /* CalcTangentsProcess.h in Headers */,
2760		745FF848113ECB080020C31B /* ConvertToLHProcess.h in Headers */,
2761		745FF849113ECB080020C31B /* DefaultIOStream.h in Headers */,
2762		745FF84A113ECB080020C31B /* DefaultIOSystem.h in Headers */,
2763		745FF84C113ECB080020C31B /* fast_atof.h in Headers */,
2764		745FF84D113ECB080020C31B /* FileLogStream.h in Headers */,
2765		745FF84E113ECB080020C31B /* GenFaceNormalsProcess.h in Headers */,
2766		745FF84F113ECB080020C31B /* GenVertexNormalsProcess.h in Headers */,
2767	3377	745FF850113ECB080020C31B /* HalfLifeFileData.h in Headers */,
2768	3378	745FF851113ECB080020C31B /* HMPLoader.h in Headers */,
2769		745FF852113ECB080020C31B /* ImproveCacheLocality.h in Headers */,
2770		745FF853113ECB080020C31B /* JoinVerticesProcess.h in Headers */,
2771		745FF854113ECB080020C31B /* LimitBoneWeightsProcess.h in Headers */,
2772		745FF855113ECB080020C31B /* MaterialSystem.h in Headers */,
2773	3379	745FF856113ECB080020C31B /* MD2FileData.h in Headers */,
2774	3380	745FF857113ECB080020C31B /* MD2Loader.h in Headers */,
2775	3381	745FF858113ECB080020C31B /* MD2NormalTable.h in Headers */,

2780	3386	745FF85D113ECB080020C31B /* MDLDefaultColorMap.h in Headers */,
2781	3387	745FF85E113ECB080020C31B /* MDLFileData.h in Headers */,
2782	3388	745FF85F113ECB080020C31B /* MDLLoader.h in Headers */,
2783		745FF860113ECB080020C31B /* ObjFileData.h in Headers */,
2784		745FF861113ECB080020C31B /* ObjFileImporter.h in Headers */,
2785		745FF862113ECB080020C31B /* ObjFileMtlImporter.h in Headers */,
2786		745FF863113ECB080020C31B /* ObjFileParser.h in Headers */,
2787		745FF864113ECB080020C31B /* ObjTools.h in Headers */,
2788		745FF865113ECB080020C31B /* ParsingUtils.h in Headers */,
2789	3389	745FF866113ECB080020C31B /* PlyLoader.h in Headers */,
2790	3390	745FF867113ECB080020C31B /* PlyParser.h in Headers */,
2791		745FF868113ECB080020C31B /* PretransformVertices.h in Headers */,
2792		745FF869113ECB080020C31B /* qnan.h in Headers */,
2793		745FF86A113ECB080020C31B /* RemoveComments.h in Headers */,
2794		745FF86B113ECB080020C31B /* RemoveRedundantMaterials.h in Headers */,
2795	3391	745FF86C113ECB080020C31B /* SMDLoader.h in Headers */,
2796		745FF86D113ECB080020C31B /* SpatialSort.h in Headers */,
2797		745FF86E113ECB080020C31B /* SplitLargeMeshes.h in Headers */,
2798		745FF86F113ECB080020C31B /* STLLoader.h in Headers */,
2799		745FF870113ECB080020C31B /* StringComparison.h in Headers */,
2800		745FF871113ECB080020C31B /* TextureTransform.h in Headers */,
2801		745FF872113ECB080020C31B /* TriangulateProcess.h in Headers */,
2802		745FF873113ECB080020C31B /* ValidateDataStructure.h in Headers */,
2803		745FF874113ECB080020C31B /* VertexTriangleAdjacency.h in Headers */,
2804		745FF875113ECB080020C31B /* Win32DebugLogStream.h in Headers */,
2805	3392	745FF876113ECB080020C31B /* XFileHelper.h in Headers */,
2806	3393	745FF877113ECB080020C31B /* XFileImporter.h in Headers */,
2807	3394	745FF878113ECB080020C31B /* XFileParser.h in Headers */,
2808	3395	745FF87B113ECB080020C31B /* MDCFileData.h in Headers */,
2809	3396	745FF87C113ECB080020C31B /* MDCLoader.h in Headers */,
2810	3397	745FF87D113ECB080020C31B /* MDCNormalTable.h in Headers */,
2811		745FF87E113ECB080020C31B /* FixNormalsStep.h in Headers */,
2812	3398	745FF87F113ECB080020C31B /* LWOFileData.h in Headers */,
2813	3399	745FF880113ECB080020C31B /* LWOLoader.h in Headers */,
2814	3400	745FF881113ECB080020C31B /* HMPFileData.h in Headers */,
2815		745FF883113ECB080020C31B /* IFF.h in Headers */,
2816		745FF884113ECB080020C31B /* Hash.h in Headers */,
2817	3401	745FF889113ECB080020C31B /* ACLoader.h in Headers */,
2818	3402	745FF88A113ECB080020C31B /* IRRLoader.h in Headers */,
2819	3403	745FF88B113ECB080020C31B /* IRRMeshLoader.h in Headers */,
2820	3404	745FF88C113ECB080020C31B /* IRRShared.h in Headers */,
2821		745FF88D113ECB080020C31B /* ColladaHelper.h in Headers */,
2822		745FF88E113ECB080020C31B /* ColladaLoader.h in Headers */,
2823		745FF88F113ECB080020C31B /* ColladaParser.h in Headers */,
2824	3405	745FF890113ECB080020C31B /* NFFLoader.h in Headers */,
2825		745FF891113ECB080020C31B /* SGSpatialSort.h in Headers */,
2826	3406	745FF892113ECB080020C31B /* Q3DLoader.h in Headers */,
2827	3407	745FF893113ECB080020C31B /* BVHLoader.h in Headers */,
2828	3408	745FF894113ECB080020C31B /* OFFLoader.h in Headers */,

2830	3410	745FF896113ECB080020C31B /* DXFLoader.h in Headers */,
2831	3411	745FF897113ECB080020C31B /* TerragenLoader.h in Headers */,
2832	3412	745FF898113ECB080020C31B /* irrXMLWrapper.h in Headers */,
2833		745FF899113ECB080020C31B /* ScenePreprocessor.h in Headers */,
2834		745FF89A113ECB080020C31B /* SceneCombiner.h in Headers */,
2835		745FF89B113ECB080020C31B /* SortByPTypeProcess.h in Headers */,
2836		745FF89C113ECB080020C31B /* FindDegenerates.h in Headers */,
2837		745FF89D113ECB080020C31B /* ComputeUVMappingProcess.h in Headers */,
2838		745FF89E113ECB080020C31B /* StandardShapes.h in Headers */,
2839		745FF89F113ECB080020C31B /* FindInstancesProcess.h in Headers */,
2840		745FF8A0113ECB080020C31B /* RemoveVCProcess.h in Headers */,
2841		745FF8A1113ECB080020C31B /* FindInvalidDataProcess.h in Headers */,
2842		745FF8A2113ECB080020C31B /* SkeletonMeshBuilder.h in Headers */,
2843		745FF8A3113ECB080020C31B /* SmoothingGroups.h in Headers */,
2844	3413	745FF8AA113ECB080020C31B /* B3DImporter.h in Headers */,
2845		7437C960113F18C70067B9B9 /* foreach.hpp in Headers */,
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2847		7437C962113F18C70067B9B9 /* common_factor_rt.hpp in Headers */,
2848		7437C963113F18C70067B9B9 /* scoped_array.hpp in Headers */,
2849		7437C964113F18C70067B9B9 /* scoped_ptr.hpp in Headers */,
2850		7437C965113F18C70067B9B9 /* static_assert.hpp in Headers */,
2851		7437C966113F18C70067B9B9 /* tuple.hpp in Headers */,
2852	3414	7411B15311416D5E00BCD793 /* CSMLoader.h in Headers */,
2853	3415	7411B15E11416DDD00BCD793 /* LWSLoader.h in Headers */,
2854	3416	7411B16811416DF400BCD793 /* LWOAnimation.h in Headers */,
2855	3417	7411B17511416E2500BCD793 /* MS3DLoader.h in Headers */,
2856	3418	7411B19011416EBC00BCD793 /* UnrealLoader.h in Headers */,
2857		7411B1B511416EF400BCD793 /* FileSystemFilter.h in Headers */,
2858		7411B1B611416EF400BCD793 /* GenericProperty.h in Headers */,
2859		7411B1B711416EF400BCD793 /* MemoryIOWrapper.h in Headers */,
2860		7411B1B911416EF400BCD793 /* OptimizeGraph.h in Headers */,
2861		7411B1BB11416EF400BCD793 /* OptimizeMeshes.h in Headers */,
2862		7411B1BC11416EF400BCD793 /* ProcessHelper.h in Headers */,
2863		7411B1BD11416EF400BCD793 /* StdOStreamLogStream.h in Headers */,
2864		7411B1BE11416EF400BCD793 /* StreamReader.h in Headers */,
2865		7411B1C011416EF400BCD793 /* Subdivision.h in Headers */,
2866		7411B1C211416EF400BCD793 /* TargetAnimation.h in Headers */,
2867		7411B1C311416EF400BCD793 /* Vertex.h in Headers */,
2868	3419	74C9BB6011ACBB1000AF885C /* BlenderDNA.h in Headers */,
2869	3420	74C9BB6211ACBB1000AF885C /* BlenderLoader.h in Headers */,
2870	3421	74C9BB6411ACBB1000AF885C /* BlenderScene.h in Headers */,
2871	3422	74C9BB6511ACBB1000AF885C /* BlenderSceneGen.h in Headers */,
2872		74C9BB7211ACBB3600AF885C /* pointer_cast.hpp in Headers */,
2873		74C9BB7311ACBB3600AF885C /* shared_array.hpp in Headers */,
2874		74C9BB7411ACBB3600AF885C /* shared_ptr.hpp in Headers */,
2875		74C9BB7F11ACBB7800AF885C /* MakeVerboseFormat.h in Headers */,
2876	3423	74C9BB8911ACBB9900AF885C /* AssimpPCH.h in Headers */,
2877	3424	74C9BB9711ACBBBC00AF885C /* COBLoader.h in Headers */,
2878	3425	74C9BB9811ACBBBC00AF885C /* COBScene.h in Headers */,
2879	3426	74C9BBB411ACBC2600AF885C /* revision.h in Headers */,
2880		74C9BBBF11ACBC6C00AF885C /* Exceptional.h in Headers */,
2881		74C9BBC011ACBC6C00AF885C /* LineSplitter.h in Headers */,
2882		74C9BBC111ACBC6C00AF885C /* MD4FileData.h in Headers */,
2883		74C9BBC211ACBC6C00AF885C /* TinyFormatter.h in Headers */,
2884	3427	8E7ABBA8127E0F1A00512ED1 /* Q3BSPFileData.h in Headers */,
2885	3428	8E7ABBAA127E0F1A00512ED1 /* Q3BSPFileImporter.h in Headers */,
2886	3429	8E7ABBAC127E0F1A00512ED1 /* Q3BSPFileParser.h in Headers */,

2888	3431	8E7ABBC7127E0F2A00512ED1 /* NDOLoader.h in Headers */,
2889	3432	8E7ABBD1127E0F3800512ED1 /* BlenderIntermediate.h in Headers */,
2890	3433	8E7ABBD3127E0F3800512ED1 /* BlenderModifier.h in Headers */,
2891		8E7ABBE3127E0FA400512ED1 /* assbin_chunks.h in Headers */,
2892		8E7ABBE4127E0FA400512ED1 /* DefaultProgressHandler.h in Headers */,
2893		8E7ABBE5127E0FA400512ED1 /* Profiler.h in Headers */,
2894		8E7ABBE6127E0FA400512ED1 /* pstdint.h in Headers */,
2895	3434	8E8DEE5D127E2B78005EF64D /* ConvertUTF.h in Headers */,
2896	3435	8E8DEE5E127E2B78005EF64D /* CXMLReaderImpl.h in Headers */,
2897	3436	8E8DEE5F127E2B78005EF64D /* heapsort.h in Headers */,

2937	3476	F9BA8C041543268400E63FFE /* version.h in Headers */,
2938	3477	F9BA8C48154328B600E63FFE /* OgreImporter.hpp in Headers */,
2939	3478	F9BA8C4C154328B600E63FFE /* OgreXmlHelper.hpp in Headers */,
2940		F99A9EB615436077000682F3 /* BlobIOSystem.h in Headers */,
2941		F99A9EBB15436098000682F3 /* lexical_cast.hpp in Headers */,
2942		F99A9EC0154360A0000682F3 /* make_shared.hpp in Headers */,
2943		F99A9EC5154360A5000682F3 /* noncopyable.hpp in Headers */,
2944		F99A9ECA154360B5000682F3 /* timer.hpp in Headers */,
2945		F99A9ECF154360E2000682F3 /* CInterfaceIOWrapper.h in Headers */,
2946		F99A9ED815436125000682F3 /* DeboneProcess.h in Headers */,
2947		F99A9F1F154361D4000682F3 /* LogAux.h in Headers */,
2948		F99A9F2D15436207000682F3 /* M3Importer.h in Headers */,
2949	3479	F99A9F3715436269000682F3 /* PlyExporter.h in Headers */,
2950		F99A9F3D15436286000682F3 /* PolyTools.h in Headers */,
2951		F99A9F47154362DE000682F3 /* ScenePrivate.h in Headers */,
2952		F99A9F5015436304000682F3 /* SplitByBoneCountProcess.h in Headers */,
2953		F99A9F6215436323000682F3 /* STEPFile.h in Headers */,
2954		F99A9F6415436323000682F3 /* STEPFileReader.h in Headers */,
2955	3480	F9607088154366AB004D91DD /* crc32.h in Headers */,
2956	3481	F960708A154366AB004D91DD /* deflate.h in Headers */,
2957	3482	F960708C154366AB004D91DD /* inffast.h in Headers */,

2973	3498	F96071001543675E004D91DD /* sweep.h in Headers */,
2974	3499	F96071021543675E004D91DD /* sweep_context.h in Headers */,
2975	3500	F97BA03815439DB3009EB9DD /* ai_assert.h in Headers */,
2976		F97BA08715439FC3009EB9DD /* IFCLoader.h in Headers */,
2977		F97BA08B15439FC3009EB9DD /* IFCReaderGen.h in Headers */,
2978		F97BA08D15439FC3009EB9DD /* IFCUtil.h in Headers */,
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	3562	2B7F49B91708365200A106A9 /* LineSplitter.h in Headers */,
	3563	2B7F49BE1708365200A106A9 /* LogAux.h in Headers */,
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	3568	2B7F4A9F1708365200A106A9 /* ObjExporter.h in Headers */,
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	3570	2B7F4AAE1708365200A106A9 /* ObjFileImporter.h in Headers */,
	3571	2B7F4AB81708365200A106A9 /* ObjFileMtlImporter.h in Headers */,
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	3580	2B7F4B491708365200A106A9 /* Profiler.h in Headers */,
	3581	2B7F4B4E1708365200A106A9 /* pstdint.h in Headers */,
	3582	2B7F4B801708365200A106A9 /* qnan.h in Headers */,
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	3588	2B7F4BC61708365200A106A9 /* ScenePrivate.h in Headers */,
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	3606	2B7F4C6B1708365200A106A9 /* TargetAnimation.h in Headers */,
	3607	2B7F4C7F1708365200A106A9 /* TextureTransform.h in Headers */,
	3608	2B7F4C841708365200A106A9 /* TinyFormatter.h in Headers */,
	3609	2B7F4C8E1708365200A106A9 /* TriangulateProcess.h in Headers */,
	3610	2B7F4CA21708365200A106A9 /* ValidateDataStructure.h in Headers */,
	3611	2B7F4CA71708365200A106A9 /* Vertex.h in Headers */,
	3612	2B7F4CB11708365200A106A9 /* VertexTriangleAdjacency.h in Headers */,
	3613	2B7F4CB61708365200A106A9 /* Win32DebugLogStream.h in Headers */,
2979	3614	);
2980	3615	runOnlyForDeploymentPostprocessing = 0;
2981	3616	};

2987	3622	745FF924113ECC660020C31B /* 3DSLoader.h in Headers */,
2988	3623	745FF925113ECC660020C31B /* ASELoader.h in Headers */,
2989	3624	745FF926113ECC660020C31B /* ASEParser.h in Headers */,
2990		745FF927113ECC660020C31B /* BaseImporter.h in Headers */,
2991		745FF928113ECC660020C31B /* BaseProcess.h in Headers */,
2992		745FF929113ECC660020C31B /* ByteSwap.h in Headers */,
2993		745FF92A113ECC660020C31B /* CalcTangentsProcess.h in Headers */,
2994		745FF92B113ECC660020C31B /* ConvertToLHProcess.h in Headers */,
2995		745FF92C113ECC660020C31B /* DefaultIOStream.h in Headers */,
2996		745FF92D113ECC660020C31B /* DefaultIOSystem.h in Headers */,
2997		745FF92F113ECC660020C31B /* fast_atof.h in Headers */,
2998		745FF930113ECC660020C31B /* FileLogStream.h in Headers */,
2999		745FF931113ECC660020C31B /* GenFaceNormalsProcess.h in Headers */,
3000		745FF932113ECC660020C31B /* GenVertexNormalsProcess.h in Headers */,
3001	3625	745FF933113ECC660020C31B /* HalfLifeFileData.h in Headers */,
3002	3626	745FF934113ECC660020C31B /* HMPLoader.h in Headers */,
3003		745FF935113ECC660020C31B /* ImproveCacheLocality.h in Headers */,
3004		745FF936113ECC660020C31B /* JoinVerticesProcess.h in Headers */,
3005		745FF937113ECC660020C31B /* LimitBoneWeightsProcess.h in Headers */,
3006		745FF938113ECC660020C31B /* MaterialSystem.h in Headers */,
3007	3627	745FF939113ECC660020C31B /* MD2FileData.h in Headers */,
3008	3628	745FF93A113ECC660020C31B /* MD2Loader.h in Headers */,
3009	3629	745FF93B113ECC660020C31B /* MD2NormalTable.h in Headers */,

3014	3634	745FF940113ECC660020C31B /* MDLDefaultColorMap.h in Headers */,
3015	3635	745FF941113ECC660020C31B /* MDLFileData.h in Headers */,
3016	3636	745FF942113ECC660020C31B /* MDLLoader.h in Headers */,
3017		745FF943113ECC660020C31B /* ObjFileData.h in Headers */,
3018		745FF944113ECC660020C31B /* ObjFileImporter.h in Headers */,
3019		745FF945113ECC660020C31B /* ObjFileMtlImporter.h in Headers */,
3020		745FF946113ECC660020C31B /* ObjFileParser.h in Headers */,
3021		745FF947113ECC660020C31B /* ObjTools.h in Headers */,
3022		745FF948113ECC660020C31B /* ParsingUtils.h in Headers */,
3023	3637	745FF949113ECC660020C31B /* PlyLoader.h in Headers */,
3024	3638	745FF94A113ECC660020C31B /* PlyParser.h in Headers */,
3025		745FF94B113ECC660020C31B /* PretransformVertices.h in Headers */,
3026		745FF94C113ECC660020C31B /* qnan.h in Headers */,
3027		745FF94D113ECC660020C31B /* RemoveComments.h in Headers */,
3028		745FF94E113ECC660020C31B /* RemoveRedundantMaterials.h in Headers */,
3029	3639	745FF94F113ECC660020C31B /* SMDLoader.h in Headers */,
3030		745FF950113ECC660020C31B /* SpatialSort.h in Headers */,
3031		745FF951113ECC660020C31B /* SplitLargeMeshes.h in Headers */,
3032		745FF952113ECC660020C31B /* STLLoader.h in Headers */,
3033		745FF953113ECC660020C31B /* StringComparison.h in Headers */,
3034		745FF954113ECC660020C31B /* TextureTransform.h in Headers */,
3035		745FF955113ECC660020C31B /* TriangulateProcess.h in Headers */,
3036		745FF956113ECC660020C31B /* ValidateDataStructure.h in Headers */,
3037		745FF957113ECC660020C31B /* VertexTriangleAdjacency.h in Headers */,
3038		745FF958113ECC660020C31B /* Win32DebugLogStream.h in Headers */,
3039	3640	745FF959113ECC660020C31B /* XFileHelper.h in Headers */,
3040	3641	745FF95A113ECC660020C31B /* XFileImporter.h in Headers */,
3041	3642	745FF95B113ECC660020C31B /* XFileParser.h in Headers */,
3042	3643	745FF95E113ECC660020C31B /* MDCFileData.h in Headers */,
3043	3644	745FF95F113ECC660020C31B /* MDCLoader.h in Headers */,
3044	3645	745FF960113ECC660020C31B /* MDCNormalTable.h in Headers */,
3045		745FF961113ECC660020C31B /* FixNormalsStep.h in Headers */,
3046	3646	745FF962113ECC660020C31B /* LWOFileData.h in Headers */,
3047	3647	745FF963113ECC660020C31B /* LWOLoader.h in Headers */,
3048	3648	745FF964113ECC660020C31B /* HMPFileData.h in Headers */,
3049		745FF966113ECC660020C31B /* IFF.h in Headers */,
3050		745FF967113ECC660020C31B /* Hash.h in Headers */,
3051	3649	745FF96C113ECC660020C31B /* ACLoader.h in Headers */,
3052	3650	745FF96D113ECC660020C31B /* IRRLoader.h in Headers */,
3053	3651	745FF96E113ECC660020C31B /* IRRMeshLoader.h in Headers */,
3054	3652	745FF96F113ECC660020C31B /* IRRShared.h in Headers */,
3055		745FF970113ECC660020C31B /* ColladaHelper.h in Headers */,
3056		745FF971113ECC660020C31B /* ColladaLoader.h in Headers */,
3057		745FF972113ECC660020C31B /* ColladaParser.h in Headers */,
3058	3653	745FF973113ECC660020C31B /* NFFLoader.h in Headers */,
3059		745FF974113ECC660020C31B /* SGSpatialSort.h in Headers */,
3060	3654	745FF975113ECC660020C31B /* Q3DLoader.h in Headers */,
3061	3655	745FF976113ECC660020C31B /* BVHLoader.h in Headers */,
3062	3656	745FF977113ECC660020C31B /* OFFLoader.h in Headers */,

3064	3658	745FF979113ECC660020C31B /* DXFLoader.h in Headers */,
3065	3659	745FF97A113ECC660020C31B /* TerragenLoader.h in Headers */,
3066	3660	745FF97B113ECC660020C31B /* irrXMLWrapper.h in Headers */,
3067		745FF97C113ECC660020C31B /* ScenePreprocessor.h in Headers */,
3068		745FF97D113ECC660020C31B /* SceneCombiner.h in Headers */,
3069		745FF97E113ECC660020C31B /* SortByPTypeProcess.h in Headers */,
3070		745FF97F113ECC660020C31B /* FindDegenerates.h in Headers */,
3071		745FF980113ECC660020C31B /* ComputeUVMappingProcess.h in Headers */,
3072		745FF981113ECC660020C31B /* StandardShapes.h in Headers */,
3073		745FF982113ECC660020C31B /* FindInstancesProcess.h in Headers */,
3074		745FF983113ECC660020C31B /* RemoveVCProcess.h in Headers */,
3075		745FF984113ECC660020C31B /* FindInvalidDataProcess.h in Headers */,
3076		745FF985113ECC660020C31B /* SkeletonMeshBuilder.h in Headers */,
3077		745FF986113ECC660020C31B /* SmoothingGroups.h in Headers */,
3078	3661	745FF98D113ECC660020C31B /* B3DImporter.h in Headers */,
3079		7437C959113F18C70067B9B9 /* foreach.hpp in Headers */,
3080		7437C95A113F18C70067B9B9 /* format.hpp in Headers */,
3081		7437C95B113F18C70067B9B9 /* common_factor_rt.hpp in Headers */,
3082		7437C95C113F18C70067B9B9 /* scoped_array.hpp in Headers */,
3083		7437C95D113F18C70067B9B9 /* scoped_ptr.hpp in Headers */,
3084		7437C95E113F18C70067B9B9 /* static_assert.hpp in Headers */,
3085		7437C95F113F18C70067B9B9 /* tuple.hpp in Headers */,
3086	3662	7411B15111416D5E00BCD793 /* CSMLoader.h in Headers */,
3087	3663	7411B15C11416DDD00BCD793 /* LWSLoader.h in Headers */,
3088	3664	7411B16611416DF400BCD793 /* LWOAnimation.h in Headers */,
3089	3665	7411B17311416E2500BCD793 /* MS3DLoader.h in Headers */,
3090	3666	7411B18E11416EBC00BCD793 /* UnrealLoader.h in Headers */,
3091		7411B1A611416EF400BCD793 /* FileSystemFilter.h in Headers */,
3092		7411B1A711416EF400BCD793 /* GenericProperty.h in Headers */,
3093		7411B1A811416EF400BCD793 /* MemoryIOWrapper.h in Headers */,
3094		7411B1AA11416EF400BCD793 /* OptimizeGraph.h in Headers */,
3095		7411B1AC11416EF400BCD793 /* OptimizeMeshes.h in Headers */,
3096		7411B1AD11416EF400BCD793 /* ProcessHelper.h in Headers */,
3097		7411B1AE11416EF400BCD793 /* StdOStreamLogStream.h in Headers */,
3098		7411B1AF11416EF400BCD793 /* StreamReader.h in Headers */,
3099		7411B1B111416EF400BCD793 /* Subdivision.h in Headers */,
3100		7411B1B311416EF400BCD793 /* TargetAnimation.h in Headers */,
3101		7411B1B411416EF400BCD793 /* Vertex.h in Headers */,
3102	3667	74C9BB6711ACBB1000AF885C /* BlenderDNA.h in Headers */,
3103	3668	74C9BB6911ACBB1000AF885C /* BlenderLoader.h in Headers */,
3104	3669	74C9BB6B11ACBB1000AF885C /* BlenderScene.h in Headers */,
3105	3670	74C9BB6C11ACBB1000AF885C /* BlenderSceneGen.h in Headers */,
3106		74C9BB7511ACBB3600AF885C /* pointer_cast.hpp in Headers */,
3107		74C9BB7611ACBB3600AF885C /* shared_array.hpp in Headers */,
3108		74C9BB7711ACBB3600AF885C /* shared_ptr.hpp in Headers */,
3109		74C9BB8111ACBB7800AF885C /* MakeVerboseFormat.h in Headers */,
3110	3671	74C9BB8B11ACBB9900AF885C /* AssimpPCH.h in Headers */,
3111	3672	74C9BB9A11ACBBBC00AF885C /* COBLoader.h in Headers */,
3112	3673	74C9BB9B11ACBBBC00AF885C /* COBScene.h in Headers */,
3113	3674	74C9BBB511ACBC2600AF885C /* revision.h in Headers */,
3114		74C9BBC311ACBC6C00AF885C /* Exceptional.h in Headers */,
3115		74C9BBC411ACBC6C00AF885C /* LineSplitter.h in Headers */,
3116		74C9BBC511ACBC6C00AF885C /* MD4FileData.h in Headers */,
3117		74C9BBC611ACBC6C00AF885C /* TinyFormatter.h in Headers */,
3118	3675	8E7ABBBD127E0F1A00512ED1 /* Q3BSPFileData.h in Headers */,
3119	3676	8E7ABBBF127E0F1A00512ED1 /* Q3BSPFileImporter.h in Headers */,
3120	3677	8E7ABBC1127E0F1A00512ED1 /* Q3BSPFileParser.h in Headers */,

3122	3679	8E7ABBCD127E0F2A00512ED1 /* NDOLoader.h in Headers */,
3123	3680	8E7ABBDA127E0F3800512ED1 /* BlenderIntermediate.h in Headers */,
3124	3681	8E7ABBDC127E0F3800512ED1 /* BlenderModifier.h in Headers */,
3125		8E7ABBEF127E0FA400512ED1 /* assbin_chunks.h in Headers */,
3126		8E7ABBF0127E0FA400512ED1 /* DefaultProgressHandler.h in Headers */,
3127		8E7ABBF1127E0FA400512ED1 /* Profiler.h in Headers */,
3128		8E7ABBF2127E0FA400512ED1 /* pstdint.h in Headers */,
3129	3682	8E8DEE87127E2B78005EF64D /* ConvertUTF.h in Headers */,
3130	3683	8E8DEE88127E2B78005EF64D /* CXMLReaderImpl.h in Headers */,
3131	3684	8E8DEE89127E2B78005EF64D /* heapsort.h in Headers */,

3171	3724	F9BA8C261543268400E63FFE /* version.h in Headers */,
3172	3725	F9BA8C4E154328B600E63FFE /* OgreImporter.hpp in Headers */,
3173	3726	F9BA8C52154328B600E63FFE /* OgreXmlHelper.hpp in Headers */,
3174		F99A9EB715436077000682F3 /* BlobIOSystem.h in Headers */,
3175		F99A9EBC15436098000682F3 /* lexical_cast.hpp in Headers */,
3176		F99A9EC1154360A0000682F3 /* make_shared.hpp in Headers */,
3177		F99A9EC6154360A5000682F3 /* noncopyable.hpp in Headers */,
3178		F99A9ECB154360B5000682F3 /* timer.hpp in Headers */,
3179		F99A9ED0154360E2000682F3 /* CInterfaceIOWrapper.h in Headers */,
3180		F99A9EDA15436125000682F3 /* DeboneProcess.h in Headers */,
3181		F99A9F20154361D4000682F3 /* LogAux.h in Headers */,
3182		F99A9F2F15436207000682F3 /* M3Importer.h in Headers */,
3183	3727	F99A9F3915436269000682F3 /* PlyExporter.h in Headers */,
3184		F99A9F3E15436286000682F3 /* PolyTools.h in Headers */,
3185		F99A9F48154362DE000682F3 /* ScenePrivate.h in Headers */,
3186		F99A9F5215436304000682F3 /* SplitByBoneCountProcess.h in Headers */,
3187		F99A9F6515436323000682F3 /* STEPFile.h in Headers */,
3188		F99A9F6715436323000682F3 /* STEPFileReader.h in Headers */,
3189	3728	F960709C154366AB004D91DD /* crc32.h in Headers */,
3190	3729	F960709E154366AB004D91DD /* deflate.h in Headers */,
3191	3730	F96070A0154366AB004D91DD /* inffast.h in Headers */,

3207	3746	F960710C1543675E004D91DD /* sweep.h in Headers */,
3208	3747	F960710E1543675E004D91DD /* sweep_context.h in Headers */,
3209	3748	F97BA03915439DB3009EB9DD /* ai_assert.h in Headers */,
3210		F97BA09115439FC3009EB9DD /* IFCLoader.h in Headers */,
3211		F97BA09515439FC3009EB9DD /* IFCReaderGen.h in Headers */,
3212		F97BA09715439FC3009EB9DD /* IFCUtil.h in Headers */,
	3749	2B7F46E01708365200A106A9 /* assbin_chunks.h in Headers */,
	3750	2B7F47081708365200A106A9 /* BaseImporter.h in Headers */,
	3751	2B7F47121708365200A106A9 /* BaseProcess.h in Headers */,
	3752	2B7F47491708365200A106A9 /* BlobIOSystem.h in Headers */,
	3753	2B7F474E1708365200A106A9 /* foreach.hpp in Headers */,
	3754	2B7F47531708365200A106A9 /* format.hpp in Headers */,
	3755	2B7F47581708365200A106A9 /* lexical_cast.hpp in Headers */,
	3756	2B7F475D1708365200A106A9 /* make_shared.hpp in Headers */,
	3757	2B7F47621708365200A106A9 /* common_factor_rt.hpp in Headers */,
	3758	2B7F47671708365200A106A9 /* noncopyable.hpp in Headers */,
	3759	2B7F476C1708365200A106A9 /* pointer_cast.hpp in Headers */,
	3760	2B7F47711708365200A106A9 /* scoped_array.hpp in Headers */,
	3761	2B7F47761708365200A106A9 /* scoped_ptr.hpp in Headers */,
	3762	2B7F477B1708365200A106A9 /* shared_array.hpp in Headers */,
	3763	2B7F47801708365200A106A9 /* shared_ptr.hpp in Headers */,
	3764	2B7F47851708365200A106A9 /* static_assert.hpp in Headers */,
	3765	2B7F478A1708365200A106A9 /* timer.hpp in Headers */,
	3766	2B7F478F1708365200A106A9 /* tuple.hpp in Headers */,
	3767	2B7F479E1708365200A106A9 /* ByteSwap.h in Headers */,
	3768	2B7F47A81708365200A106A9 /* CalcTangentsProcess.h in Headers */,
	3769	2B7F47AD1708365200A106A9 /* CInterfaceIOWrapper.h in Headers */,
	3770	2B7F47C61708365200A106A9 /* ColladaExporter.h in Headers */,
	3771	2B7F47CB1708365200A106A9 /* ColladaHelper.h in Headers */,
	3772	2B7F47D51708365200A106A9 /* ColladaLoader.h in Headers */,
	3773	2B7F47DF1708365200A106A9 /* ColladaParser.h in Headers */,
	3774	2B7F47E91708365200A106A9 /* ComputeUVMappingProcess.h in Headers */,
	3775	2B7F47F31708365200A106A9 /* ConvertToLHProcess.h in Headers */,
	3776	2B7F48071708365200A106A9 /* DeboneProcess.h in Headers */,
	3777	2B7F48111708365200A106A9 /* DefaultIOStream.h in Headers */,
	3778	2B7F481B1708365200A106A9 /* DefaultIOSystem.h in Headers */,
	3779	2B7F48251708365200A106A9 /* DefaultProgressHandler.h in Headers */,
	3780	2B7F48391708365200A106A9 /* Exceptional.h in Headers */,
	3781	2B7F48431708365200A106A9 /* fast_atof.h in Headers */,
	3782	2B7F48521708365200A106A9 /* FBXCompileConfig.h in Headers */,
	3783	2B7F485C1708365200A106A9 /* FBXConverter.h in Headers */,
	3784	2B7F486B1708365200A106A9 /* FBXDocument.h in Headers */,
	3785	2B7F48751708365200A106A9 /* FBXDocumentUtil.h in Headers */,
	3786	2B7F487F1708365200A106A9 /* FBXImporter.h in Headers */,
	3787	2B7F48841708365200A106A9 /* FBXImportSettings.h in Headers */,
	3788	2B7F48A21708365200A106A9 /* FBXParser.h in Headers */,
	3789	2B7F48AC1708365200A106A9 /* FBXProperties.h in Headers */,
	3790	2B7F48B61708365200A106A9 /* FBXTokenizer.h in Headers */,
	3791	2B7F48C01708365200A106A9 /* FBXUtil.h in Headers */,
	3792	2B7F48C51708365200A106A9 /* FileLogStream.h in Headers */,
	3793	2B7F48CA1708365200A106A9 /* FileSystemFilter.h in Headers */,
	3794	2B7F48D41708365200A106A9 /* FindDegenerates.h in Headers */,
	3795	2B7F48DE1708365200A106A9 /* FindInstancesProcess.h in Headers */,
	3796	2B7F48E81708365200A106A9 /* FindInvalidDataProcess.h in Headers */,
	3797	2B7F48F21708365200A106A9 /* FixNormalsStep.h in Headers */,
	3798	2B7F48F71708365200A106A9 /* GenericProperty.h in Headers */,
	3799	2B7F49011708365200A106A9 /* GenFaceNormalsProcess.h in Headers */,
	3800	2B7F490B1708365200A106A9 /* GenVertexNormalsProcess.h in Headers */,
	3801	2B7F49151708365200A106A9 /* Hash.h in Headers */,
	3802	2B7F493D1708365200A106A9 /* IFCLoader.h in Headers */,
	3803	2B7F49561708365200A106A9 /* IFCReaderGen.h in Headers */,
	3804	2B7F49601708365200A106A9 /* IFCUtil.h in Headers */,
	3805	2B7F49651708365200A106A9 /* IFF.h in Headers */,
	3806	2B7F496F1708365200A106A9 /* Importer.h in Headers */,
	3807	2B7F497E1708365200A106A9 /* ImproveCacheLocality.h in Headers */,
	3808	2B7F49AB1708365200A106A9 /* JoinVerticesProcess.h in Headers */,
	3809	2B7F49B51708365200A106A9 /* LimitBoneWeightsProcess.h in Headers */,
	3810	2B7F49BA1708365200A106A9 /* LineSplitter.h in Headers */,
	3811	2B7F49BF1708365200A106A9 /* LogAux.h in Headers */,
	3812	2B7F4A001708365200A106A9 /* MakeVerboseFormat.h in Headers */,
	3813	2B7F4A0A1708365200A106A9 /* MaterialSystem.h in Headers */,
	3814	2B7F4A321708365200A106A9 /* MD4FileData.h in Headers */,
	3815	2B7F4A781708365200A106A9 /* MemoryIOWrapper.h in Headers */,
	3816	2B7F4AA01708365200A106A9 /* ObjExporter.h in Headers */,
	3817	2B7F4AA51708365200A106A9 /* ObjFileData.h in Headers */,
	3818	2B7F4AAF1708365200A106A9 /* ObjFileImporter.h in Headers */,
	3819	2B7F4AB91708365200A106A9 /* ObjFileMtlImporter.h in Headers */,
	3820	2B7F4AC31708365200A106A9 /* ObjFileParser.h in Headers */,
	3821	2B7F4AC81708365200A106A9 /* ObjTools.h in Headers */,
	3822	2B7F4AFA1708365200A106A9 /* OptimizeGraph.h in Headers */,
	3823	2B7F4B041708365200A106A9 /* OptimizeMeshes.h in Headers */,
	3824	2B7F4B091708365200A106A9 /* ParsingUtils.h in Headers */,
	3825	2B7F4B2C1708365200A106A9 /* PolyTools.h in Headers */,
	3826	2B7F4B3B1708365200A106A9 /* PretransformVertices.h in Headers */,
	3827	2B7F4B451708365200A106A9 /* ProcessHelper.h in Headers */,
	3828	2B7F4B4A1708365200A106A9 /* Profiler.h in Headers */,
	3829	2B7F4B4F1708365200A106A9 /* pstdint.h in Headers */,
	3830	2B7F4B811708365200A106A9 /* qnan.h in Headers */,
	3831	2B7F4B951708365200A106A9 /* RemoveComments.h in Headers */,
	3832	2B7F4B9F1708365200A106A9 /* RemoveRedundantMaterials.h in Headers */,
	3833	2B7F4BA91708365200A106A9 /* RemoveVCProcess.h in Headers */,
	3834	2B7F4BB81708365200A106A9 /* SceneCombiner.h in Headers */,
	3835	2B7F4BC21708365200A106A9 /* ScenePreprocessor.h in Headers */,
	3836	2B7F4BC71708365200A106A9 /* ScenePrivate.h in Headers */,
	3837	2B7F4BD11708365200A106A9 /* SGSpatialSort.h in Headers */,
	3838	2B7F4BDB1708365200A106A9 /* SkeletonMeshBuilder.h in Headers */,
	3839	2B7F4BEA1708365200A106A9 /* SmoothingGroups.h in Headers */,
	3840	2B7F4BF41708365200A106A9 /* SortByPTypeProcess.h in Headers */,
	3841	2B7F4BFE1708365200A106A9 /* SpatialSort.h in Headers */,
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3213	4110	);
3214	4111	runOnlyForDeploymentPostprocessing = 0;
3215	4112	};

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3229		3AF45B0F0E4B716800207D74 /* DefaultIOStream.h in Headers */,
3230		3AF45B110E4B716800207D74 /* DefaultIOSystem.h in Headers */,
3231		3AF45B150E4B716800207D74 /* fast_atof.h in Headers */,
3232		3AF45B160E4B716800207D74 /* FileLogStream.h in Headers */,
3233		3AF45B180E4B716800207D74 /* GenFaceNormalsProcess.h in Headers */,
3234		3AF45B1A0E4B716800207D74 /* GenVertexNormalsProcess.h in Headers */,
3235	4121	3AF45B1B0E4B716800207D74 /* HalfLifeFileData.h in Headers */,
3236	4122	3AF45B1E0E4B716800207D74 /* HMPLoader.h in Headers */,
3237		3AF45B210E4B716800207D74 /* ImproveCacheLocality.h in Headers */,
3238		3AF45B230E4B716800207D74 /* JoinVerticesProcess.h in Headers */,
3239		3AF45B270E4B716800207D74 /* LimitBoneWeightsProcess.h in Headers */,
3240		3AF45B290E4B716800207D74 /* MaterialSystem.h in Headers */,
3241	4123	3AF45B2A0E4B716800207D74 /* MD2FileData.h in Headers */,
3242	4124	3AF45B2C0E4B716800207D74 /* MD2Loader.h in Headers */,
3243	4125	3AF45B2D0E4B716800207D74 /* MD2NormalTable.h in Headers */,

3248	4130	3AF45B380E4B716800207D74 /* MDLDefaultColorMap.h in Headers */,
3249	4131	3AF45B390E4B716800207D74 /* MDLFileData.h in Headers */,
3250	4132	3AF45B3B0E4B716800207D74 /* MDLLoader.h in Headers */,
3251		3AF45B3D0E4B716800207D74 /* ObjFileData.h in Headers */,
3252		3AF45B3F0E4B716800207D74 /* ObjFileImporter.h in Headers */,
3253		3AF45B410E4B716800207D74 /* ObjFileMtlImporter.h in Headers */,
3254		3AF45B430E4B716800207D74 /* ObjFileParser.h in Headers */,
3255		3AF45B440E4B716800207D74 /* ObjTools.h in Headers */,
3256		3AF45B450E4B716800207D74 /* ParsingUtils.h in Headers */,
3257	4133	3AF45B470E4B716800207D74 /* PlyLoader.h in Headers */,
3258	4134	3AF45B490E4B716800207D74 /* PlyParser.h in Headers */,
3259		3AF45B4B0E4B716800207D74 /* PretransformVertices.h in Headers */,
3260		3AF45B4C0E4B716800207D74 /* qnan.h in Headers */,
3261		3AF45B4E0E4B716800207D74 /* RemoveComments.h in Headers */,
3262		3AF45B500E4B716800207D74 /* RemoveRedundantMaterials.h in Headers */,
3263	4135	3AF45B530E4B716800207D74 /* SMDLoader.h in Headers */,
3264		3AF45B550E4B716800207D74 /* SpatialSort.h in Headers */,
3265		3AF45B570E4B716800207D74 /* SplitLargeMeshes.h in Headers */,
3266		3AF45B590E4B716800207D74 /* STLLoader.h in Headers */,
3267		3AF45B5A0E4B716800207D74 /* StringComparison.h in Headers */,
3268		3AF45B5C0E4B716800207D74 /* TextureTransform.h in Headers */,
3269		3AF45B5E0E4B716800207D74 /* TriangulateProcess.h in Headers */,
3270		3AF45B600E4B716800207D74 /* ValidateDataStructure.h in Headers */,
3271		3AF45B620E4B716800207D74 /* VertexTriangleAdjacency.h in Headers */,
3272		3AF45B630E4B716800207D74 /* Win32DebugLogStream.h in Headers */,
3273	4136	3AF45B640E4B716800207D74 /* XFileHelper.h in Headers */,
3274	4137	3AF45B660E4B716800207D74 /* XFileImporter.h in Headers */,
3275	4138	3AF45B680E4B716800207D74 /* XFileParser.h in Headers */,
3276	4139	3AB8A3AF0E50D67A00606590 /* MDCFileData.h in Headers */,
3277	4140	3AB8A3B10E50D67A00606590 /* MDCLoader.h in Headers */,
3278	4141	3AB8A3B20E50D67A00606590 /* MDCNormalTable.h in Headers */,
3279		3AB8A3B60E50D69D00606590 /* FixNormalsStep.h in Headers */,
3280	4142	3AB8A3BA0E50D6DB00606590 /* LWOFileData.h in Headers */,
3281	4143	3AB8A3BC0E50D6DB00606590 /* LWOLoader.h in Headers */,
3282	4144	3AB8A3C60E50D77900606590 /* HMPFileData.h in Headers */,
3283		3AB8A3CA0E50D7CC00606590 /* IFF.h in Headers */,
3284		3AB8A3CD0E50D7FF00606590 /* Hash.h in Headers */,
3285	4145	F90BAFD30F5DD87000124155 /* ACLoader.h in Headers */,
3286	4146	F90BAFE00F5DD90800124155 /* IRRLoader.h in Headers */,
3287	4147	F90BAFE20F5DD90800124155 /* IRRMeshLoader.h in Headers */,
3288	4148	F90BAFE40F5DD90800124155 /* IRRShared.h in Headers */,
3289		F90BAFED0F5DD93600124155 /* ColladaHelper.h in Headers */,
3290		F90BAFEF0F5DD93600124155 /* ColladaLoader.h in Headers */,
3291		F90BAFF10F5DD93600124155 /* ColladaParser.h in Headers */,
3292	4149	F90BAFF70F5DD96100124155 /* NFFLoader.h in Headers */,
3293		F90BAFFD0F5DD9A000124155 /* SGSpatialSort.h in Headers */,
3294	4150	F90BB0090F5DD9DD00124155 /* Q3DLoader.h in Headers */,
3295	4151	F90BB00E0F5DD9F400124155 /* BVHLoader.h in Headers */,
3296	4152	F90BB0150F5DDA1400124155 /* OFFLoader.h in Headers */,

3298	4154	F90BB0230F5DDA5700124155 /* DXFLoader.h in Headers */,
3299	4155	F90BB0310F5DDAB500124155 /* TerragenLoader.h in Headers */,
3300	4156	F90BB0370F5DDB1B00124155 /* irrXMLWrapper.h in Headers */,
3301		F90BB03D0F5DDB3200124155 /* ScenePreprocessor.h in Headers */,
3302		F90BB03F0F5DDB3200124155 /* SceneCombiner.h in Headers */,
3303		F90BB0440F5DDB4600124155 /* SortByPTypeProcess.h in Headers */,
3304		F90BB0490F5DDB6100124155 /* FindDegenerates.h in Headers */,
3305		F90BB04E0F5DDB8D00124155 /* ComputeUVMappingProcess.h in Headers */,
3306		F90BB0530F5DDBA800124155 /* StandardShapes.h in Headers */,
3307		F90BB0580F5DDBBF00124155 /* FindInstancesProcess.h in Headers */,
3308		F90BB05C0F5DDBCB00124155 /* RemoveVCProcess.h in Headers */,
3309		F90BB0620F5DDBE600124155 /* FindInvalidDataProcess.h in Headers */,
3310		F90BB0660F5DDC0700124155 /* SkeletonMeshBuilder.h in Headers */,
3311		F90BB06B0F5DDC1E00124155 /* SmoothingGroups.h in Headers */,
3312	4157	F90BB0890F5DDE0700124155 /* B3DImporter.h in Headers */,
3313	4158	7411B15511416D5E00BCD793 /* CSMLoader.h in Headers */,
3314	4159	7411B16011416DDD00BCD793 /* LWSLoader.h in Headers */,
3315	4160	7411B16A11416DF400BCD793 /* LWOAnimation.h in Headers */,
3316	4161	7411B17711416E2500BCD793 /* MS3DLoader.h in Headers */,
3317	4162	7411B19211416EBC00BCD793 /* UnrealLoader.h in Headers */,
3318		7411B1C411416EF400BCD793 /* FileSystemFilter.h in Headers */,
3319		7411B1C511416EF400BCD793 /* GenericProperty.h in Headers */,
3320		7411B1C611416EF400BCD793 /* MemoryIOWrapper.h in Headers */,
3321		7411B1C811416EF400BCD793 /* OptimizeGraph.h in Headers */,
3322		7411B1CA11416EF400BCD793 /* OptimizeMeshes.h in Headers */,
3323		7411B1CB11416EF400BCD793 /* ProcessHelper.h in Headers */,
3324		7411B1CC11416EF400BCD793 /* StdOStreamLogStream.h in Headers */,
3325		7411B1CD11416EF400BCD793 /* StreamReader.h in Headers */,
3326		7411B1CF11416EF400BCD793 /* Subdivision.h in Headers */,
3327		7411B1D111416EF400BCD793 /* TargetAnimation.h in Headers */,
3328		7411B1D211416EF400BCD793 /* Vertex.h in Headers */,
3329	4163	74C9BB5211ACBB1000AF885C /* BlenderDNA.h in Headers */,
3330	4164	74C9BB5411ACBB1000AF885C /* BlenderLoader.h in Headers */,
3331	4165	74C9BB5611ACBB1000AF885C /* BlenderScene.h in Headers */,
3332	4166	74C9BB5711ACBB1000AF885C /* BlenderSceneGen.h in Headers */,
3333		74C9BB8311ACBB7800AF885C /* MakeVerboseFormat.h in Headers */,
3334	4167	74C9BB8D11ACBB9900AF885C /* AssimpPCH.h in Headers */,
3335	4168	74C9BB9D11ACBBBC00AF885C /* COBLoader.h in Headers */,
3336	4169	74C9BB9E11ACBBBC00AF885C /* COBScene.h in Headers */,
3337	4170	74C9BBB611ACBC2600AF885C /* revision.h in Headers */,
3338		74C9BBC711ACBC6C00AF885C /* Exceptional.h in Headers */,
3339		74C9BBC811ACBC6C00AF885C /* LineSplitter.h in Headers */,
3340		74C9BBC911ACBC6C00AF885C /* MD4FileData.h in Headers */,
3341		74C9BBCA11ACBC6C00AF885C /* TinyFormatter.h in Headers */,
3342	4171	8E7ABBAF127E0F1A00512ED1 /* Q3BSPFileData.h in Headers */,
3343	4172	8E7ABBB1127E0F1A00512ED1 /* Q3BSPFileImporter.h in Headers */,
3344	4173	8E7ABBB3127E0F1A00512ED1 /* Q3BSPFileParser.h in Headers */,

3346	4175	8E7ABBC9127E0F2A00512ED1 /* NDOLoader.h in Headers */,
3347	4176	8E7ABBD4127E0F3800512ED1 /* BlenderIntermediate.h in Headers */,
3348	4177	8E7ABBD6127E0F3800512ED1 /* BlenderModifier.h in Headers */,
3349		8E7ABBE7127E0FA400512ED1 /* assbin_chunks.h in Headers */,
3350		8E7ABBE8127E0FA400512ED1 /* DefaultProgressHandler.h in Headers */,
3351		8E7ABBE9127E0FA400512ED1 /* Profiler.h in Headers */,
3352		8E7ABBEA127E0FA400512ED1 /* pstdint.h in Headers */,
3353	4178	8E8DEE6B127E2B78005EF64D /* ConvertUTF.h in Headers */,
3354	4179	8E8DEE6C127E2B78005EF64D /* CXMLReaderImpl.h in Headers */,
3355	4180	8E8DEE6D127E2B78005EF64D /* heapsort.h in Headers */,

3395	4220	F9BA8BC01543268400E63FFE /* version.h in Headers */,
3396	4221	F9BA8C3C154328B600E63FFE /* OgreImporter.hpp in Headers */,
3397	4222	F9BA8C40154328B600E63FFE /* OgreXmlHelper.hpp in Headers */,
3398		F99A9EB415436077000682F3 /* BlobIOSystem.h in Headers */,
3399		F99A9EB915436098000682F3 /* lexical_cast.hpp in Headers */,
3400		F99A9EBE154360A0000682F3 /* make_shared.hpp in Headers */,
3401		F99A9EC3154360A5000682F3 /* noncopyable.hpp in Headers */,
3402		F99A9EC8154360B5000682F3 /* timer.hpp in Headers */,
3403		F99A9ECD154360E2000682F3 /* CInterfaceIOWrapper.h in Headers */,
3404		F99A9ED415436125000682F3 /* DeboneProcess.h in Headers */,
3405		F99A9F1D154361D4000682F3 /* LogAux.h in Headers */,
3406		F99A9F2915436207000682F3 /* M3Importer.h in Headers */,
3407	4223	F99A9F3315436269000682F3 /* PlyExporter.h in Headers */,
3408		F99A9F3B15436286000682F3 /* PolyTools.h in Headers */,
3409		F99A9F45154362DE000682F3 /* ScenePrivate.h in Headers */,
3410		F99A9F4C15436304000682F3 /* SplitByBoneCountProcess.h in Headers */,
3411		F99A9F5C15436323000682F3 /* STEPFile.h in Headers */,
3412		F99A9F5E15436323000682F3 /* STEPFileReader.h in Headers */,
3413	4224	F9607060154366AB004D91DD /* crc32.h in Headers */,
3414	4225	F9607062154366AB004D91DD /* deflate.h in Headers */,
3415	4226	F9607064154366AB004D91DD /* inffast.h in Headers */,

3431	4242	F96070E81543675E004D91DD /* sweep.h in Headers */,
3432	4243	F96070EA1543675E004D91DD /* sweep_context.h in Headers */,
3433	4244	F97BA03615439DB3009EB9DD /* ai_assert.h in Headers */,
3434		F97BA07315439FC3009EB9DD /* IFCLoader.h in Headers */,
3435		F97BA07715439FC3009EB9DD /* IFCReaderGen.h in Headers */,
3436		F97BA07915439FC3009EB9DD /* IFCUtil.h in Headers */,
	4245	2B7F46DD1708365200A106A9 /* assbin_chunks.h in Headers */,
	4246	2B7F47051708365200A106A9 /* BaseImporter.h in Headers */,
	4247	2B7F470F1708365200A106A9 /* BaseProcess.h in Headers */,
	4248	2B7F47461708365200A106A9 /* BlobIOSystem.h in Headers */,
	4249	2B7F474B1708365200A106A9 /* foreach.hpp in Headers */,
	4250	2B7F47501708365200A106A9 /* format.hpp in Headers */,
	4251	2B7F47551708365200A106A9 /* lexical_cast.hpp in Headers */,
	4252	2B7F475A1708365200A106A9 /* make_shared.hpp in Headers */,
	4253	2B7F475F1708365200A106A9 /* common_factor_rt.hpp in Headers */,
	4254	2B7F47641708365200A106A9 /* noncopyable.hpp in Headers */,
	4255	2B7F47691708365200A106A9 /* pointer_cast.hpp in Headers */,
	4256	2B7F476E1708365200A106A9 /* scoped_array.hpp in Headers */,
	4257	2B7F47731708365200A106A9 /* scoped_ptr.hpp in Headers */,
	4258	2B7F47781708365200A106A9 /* shared_array.hpp in Headers */,
	4259	2B7F477D1708365200A106A9 /* shared_ptr.hpp in Headers */,
	4260	2B7F47821708365200A106A9 /* static_assert.hpp in Headers */,
	4261	2B7F47871708365200A106A9 /* timer.hpp in Headers */,
	4262	2B7F478C1708365200A106A9 /* tuple.hpp in Headers */,
	4263	2B7F479B1708365200A106A9 /* ByteSwap.h in Headers */,
	4264	2B7F47A51708365200A106A9 /* CalcTangentsProcess.h in Headers */,
	4265	2B7F47AA1708365200A106A9 /* CInterfaceIOWrapper.h in Headers */,
	4266	2B7F47C31708365200A106A9 /* ColladaExporter.h in Headers */,
	4267	2B7F47C81708365200A106A9 /* ColladaHelper.h in Headers */,
	4268	2B7F47D21708365200A106A9 /* ColladaLoader.h in Headers */,
	4269	2B7F47DC1708365200A106A9 /* ColladaParser.h in Headers */,
	4270	2B7F47E61708365200A106A9 /* ComputeUVMappingProcess.h in Headers */,
	4271	2B7F47F01708365200A106A9 /* ConvertToLHProcess.h in Headers */,
	4272	2B7F48041708365200A106A9 /* DeboneProcess.h in Headers */,
	4273	2B7F480E1708365200A106A9 /* DefaultIOStream.h in Headers */,
	4274	2B7F48181708365200A106A9 /* DefaultIOSystem.h in Headers */,
	4275	2B7F48221708365200A106A9 /* DefaultProgressHandler.h in Headers */,
	4276	2B7F48361708365200A106A9 /* Exceptional.h in Headers */,
	4277	2B7F48401708365200A106A9 /* fast_atof.h in Headers */,
	4278	2B7F484F1708365200A106A9 /* FBXCompileConfig.h in Headers */,
	4279	2B7F48591708365200A106A9 /* FBXConverter.h in Headers */,
	4280	2B7F48681708365200A106A9 /* FBXDocument.h in Headers */,
	4281	2B7F48721708365200A106A9 /* FBXDocumentUtil.h in Headers */,
	4282	2B7F487C1708365200A106A9 /* FBXImporter.h in Headers */,
	4283	2B7F48811708365200A106A9 /* FBXImportSettings.h in Headers */,
	4284	2B7F489F1708365200A106A9 /* FBXParser.h in Headers */,
	4285	2B7F48A91708365200A106A9 /* FBXProperties.h in Headers */,
	4286	2B7F48B31708365200A106A9 /* FBXTokenizer.h in Headers */,
	4287	2B7F48BD1708365200A106A9 /* FBXUtil.h in Headers */,
	4288	2B7F48C21708365200A106A9 /* FileLogStream.h in Headers */,
	4289	2B7F48C71708365200A106A9 /* FileSystemFilter.h in Headers */,
	4290	2B7F48D11708365200A106A9 /* FindDegenerates.h in Headers */,
	4291	2B7F48DB1708365200A106A9 /* FindInstancesProcess.h in Headers */,
	4292	2B7F48E51708365200A106A9 /* FindInvalidDataProcess.h in Headers */,
	4293	2B7F48EF1708365200A106A9 /* FixNormalsStep.h in Headers */,
	4294	2B7F48F41708365200A106A9 /* GenericProperty.h in Headers */,
	4295	2B7F48FE1708365200A106A9 /* GenFaceNormalsProcess.h in Headers */,
	4296	2B7F49081708365200A106A9 /* GenVertexNormalsProcess.h in Headers */,
	4297	2B7F49121708365200A106A9 /* Hash.h in Headers */,
	4298	2B7F493A1708365200A106A9 /* IFCLoader.h in Headers */,
	4299	2B7F49531708365200A106A9 /* IFCReaderGen.h in Headers */,
	4300	2B7F495D1708365200A106A9 /* IFCUtil.h in Headers */,
	4301	2B7F49621708365200A106A9 /* IFF.h in Headers */,
	4302	2B7F496C1708365200A106A9 /* Importer.h in Headers */,
	4303	2B7F497B1708365200A106A9 /* ImproveCacheLocality.h in Headers */,
	4304	2B7F49A81708365200A106A9 /* JoinVerticesProcess.h in Headers */,
	4305	2B7F49B21708365200A106A9 /* LimitBoneWeightsProcess.h in Headers */,
	4306	2B7F49B71708365200A106A9 /* LineSplitter.h in Headers */,
	4307	2B7F49BC1708365200A106A9 /* LogAux.h in Headers */,
	4308	2B7F49FD1708365200A106A9 /* MakeVerboseFormat.h in Headers */,
	4309	2B7F4A071708365200A106A9 /* MaterialSystem.h in Headers */,
	4310	2B7F4A2F1708365200A106A9 /* MD4FileData.h in Headers */,
	4311	2B7F4A751708365200A106A9 /* MemoryIOWrapper.h in Headers */,
	4312	2B7F4A9D1708365200A106A9 /* ObjExporter.h in Headers */,
	4313	2B7F4AA21708365200A106A9 /* ObjFileData.h in Headers */,
	4314	2B7F4AAC1708365200A106A9 /* ObjFileImporter.h in Headers */,
	4315	2B7F4AB61708365200A106A9 /* ObjFileMtlImporter.h in Headers */,
	4316	2B7F4AC01708365200A106A9 /* ObjFileParser.h in Headers */,
	4317	2B7F4AC51708365200A106A9 /* ObjTools.h in Headers */,
	4318	2B7F4AF71708365200A106A9 /* OptimizeGraph.h in Headers */,
	4319	2B7F4B011708365200A106A9 /* OptimizeMeshes.h in Headers */,
	4320	2B7F4B061708365200A106A9 /* ParsingUtils.h in Headers */,
	4321	2B7F4B291708365200A106A9 /* PolyTools.h in Headers */,
	4322	2B7F4B381708365200A106A9 /* PretransformVertices.h in Headers */,
	4323	2B7F4B421708365200A106A9 /* ProcessHelper.h in Headers */,
	4324	2B7F4B471708365200A106A9 /* Profiler.h in Headers */,
	4325	2B7F4B4C1708365200A106A9 /* pstdint.h in Headers */,
	4326	2B7F4B7E1708365200A106A9 /* qnan.h in Headers */,
	4327	2B7F4B921708365200A106A9 /* RemoveComments.h in Headers */,
	4328	2B7F4B9C1708365200A106A9 /* RemoveRedundantMaterials.h in Headers */,
	4329	2B7F4BA61708365200A106A9 /* RemoveVCProcess.h in Headers */,
	4330	2B7F4BB51708365200A106A9 /* SceneCombiner.h in Headers */,
	4331	2B7F4BBF1708365200A106A9 /* ScenePreprocessor.h in Headers */,
	4332	2B7F4BC41708365200A106A9 /* ScenePrivate.h in Headers */,
	4333	2B7F4BCE1708365200A106A9 /* SGSpatialSort.h in Headers */,
	4334	2B7F4BD81708365200A106A9 /* SkeletonMeshBuilder.h in Headers */,
	4335	2B7F4BE71708365200A106A9 /* SmoothingGroups.h in Headers */,
	4336	2B7F4BF11708365200A106A9 /* SortByPTypeProcess.h in Headers */,
	4337	2B7F4BFB1708365200A106A9 /* SpatialSort.h in Headers */,
	4338	2B7F4C051708365200A106A9 /* SplitByBoneCountProcess.h in Headers */,
	4339	2B7F4C0F1708365200A106A9 /* SplitLargeMeshes.h in Headers */,
	4340	2B7F4C191708365200A106A9 /* StandardShapes.h in Headers */,
	4341	2B7F4C1E1708365200A106A9 /* StdOStreamLogStream.h in Headers */,
	4342	2B7F4C231708365200A106A9 /* STEPFile.h in Headers */,
	4343	2B7F4C2D1708365200A106A9 /* STEPFileEncoding.h in Headers */,
	4344	2B7F4C371708365200A106A9 /* STEPFileReader.h in Headers */,
	4345	2B7F4C411708365200A106A9 /* STLExporter.h in Headers */,
	4346	2B7F4C4B1708365200A106A9 /* STLLoader.h in Headers */,
	4347	2B7F4C501708365200A106A9 /* StreamReader.h in Headers */,
	4348	2B7F4C551708365200A106A9 /* StringComparison.h in Headers */,
	4349	2B7F4C5F1708365200A106A9 /* Subdivision.h in Headers */,
	4350	2B7F4C691708365200A106A9 /* TargetAnimation.h in Headers */,
	4351	2B7F4C7D1708365200A106A9 /* TextureTransform.h in Headers */,
	4352	2B7F4C821708365200A106A9 /* TinyFormatter.h in Headers */,
	4353	2B7F4C8C1708365200A106A9 /* TriangulateProcess.h in Headers */,
	4354	2B7F4CA01708365200A106A9 /* ValidateDataStructure.h in Headers */,
	4355	2B7F4CA51708365200A106A9 /* Vertex.h in Headers */,
	4356	2B7F4CAF1708365200A106A9 /* VertexTriangleAdjacency.h in Headers */,
	4357	2B7F4CB41708365200A106A9 /* Win32DebugLogStream.h in Headers */,
3437	4358	);
3438	4359	runOnlyForDeploymentPostprocessing = 0;
3439	4360	};

3445	4366	F962E8EE0F5DE6E2009A5495 /* 3DSLoader.h in Headers */,
3446	4367	F962E8EF0F5DE6E2009A5495 /* ASELoader.h in Headers */,
3447	4368	F962E8F00F5DE6E2009A5495 /* ASEParser.h in Headers */,
3448		F962E8F10F5DE6E2009A5495 /* BaseImporter.h in Headers */,
3449		F962E8F20F5DE6E2009A5495 /* BaseProcess.h in Headers */,
3450		F962E8F30F5DE6E2009A5495 /* ByteSwap.h in Headers */,
3451		F962E8F40F5DE6E2009A5495 /* CalcTangentsProcess.h in Headers */,
3452		F962E8F50F5DE6E2009A5495 /* ConvertToLHProcess.h in Headers */,
3453		F962E8F60F5DE6E2009A5495 /* DefaultIOStream.h in Headers */,
3454		F962E8F70F5DE6E2009A5495 /* DefaultIOSystem.h in Headers */,
3455		F962E8F90F5DE6E2009A5495 /* fast_atof.h in Headers */,
3456		F962E8FA0F5DE6E2009A5495 /* FileLogStream.h in Headers */,
3457		F962E8FB0F5DE6E2009A5495 /* GenFaceNormalsProcess.h in Headers */,
3458		F962E8FC0F5DE6E2009A5495 /* GenVertexNormalsProcess.h in Headers */,
3459	4369	F962E8FD0F5DE6E2009A5495 /* HalfLifeFileData.h in Headers */,
3460	4370	F962E8FE0F5DE6E2009A5495 /* HMPLoader.h in Headers */,
3461		F962E8FF0F5DE6E2009A5495 /* ImproveCacheLocality.h in Headers */,
3462		F962E9000F5DE6E2009A5495 /* JoinVerticesProcess.h in Headers */,
3463		F962E9010F5DE6E2009A5495 /* LimitBoneWeightsProcess.h in Headers */,
3464		F962E9020F5DE6E2009A5495 /* MaterialSystem.h in Headers */,
3465	4371	F962E9030F5DE6E2009A5495 /* MD2FileData.h in Headers */,
3466	4372	F962E9040F5DE6E2009A5495 /* MD2Loader.h in Headers */,
3467	4373	F962E9050F5DE6E2009A5495 /* MD2NormalTable.h in Headers */,

3472	4378	F962E90A0F5DE6E2009A5495 /* MDLDefaultColorMap.h in Headers */,
3473	4379	F962E90B0F5DE6E2009A5495 /* MDLFileData.h in Headers */,
3474	4380	F962E90C0F5DE6E2009A5495 /* MDLLoader.h in Headers */,
3475		F962E90D0F5DE6E2009A5495 /* ObjFileData.h in Headers */,
3476		F962E90E0F5DE6E2009A5495 /* ObjFileImporter.h in Headers */,
3477		F962E90F0F5DE6E2009A5495 /* ObjFileMtlImporter.h in Headers */,
3478		F962E9100F5DE6E2009A5495 /* ObjFileParser.h in Headers */,
3479		F962E9110F5DE6E2009A5495 /* ObjTools.h in Headers */,
3480		F962E9120F5DE6E2009A5495 /* ParsingUtils.h in Headers */,
3481	4381	F962E9130F5DE6E2009A5495 /* PlyLoader.h in Headers */,
3482	4382	F962E9140F5DE6E2009A5495 /* PlyParser.h in Headers */,
3483		F962E9150F5DE6E2009A5495 /* PretransformVertices.h in Headers */,
3484		F962E9160F5DE6E2009A5495 /* qnan.h in Headers */,
3485		F962E9170F5DE6E2009A5495 /* RemoveComments.h in Headers */,
3486		F962E9180F5DE6E2009A5495 /* RemoveRedundantMaterials.h in Headers */,
3487	4383	F962E9190F5DE6E2009A5495 /* SMDLoader.h in Headers */,
3488		F962E91A0F5DE6E2009A5495 /* SpatialSort.h in Headers */,
3489		F962E91B0F5DE6E2009A5495 /* SplitLargeMeshes.h in Headers */,
3490		F962E91C0F5DE6E2009A5495 /* STLLoader.h in Headers */,
3491		F962E91D0F5DE6E2009A5495 /* StringComparison.h in Headers */,
3492		F962E91E0F5DE6E2009A5495 /* TextureTransform.h in Headers */,
3493		F962E91F0F5DE6E2009A5495 /* TriangulateProcess.h in Headers */,
3494		F962E9200F5DE6E2009A5495 /* ValidateDataStructure.h in Headers */,
3495		F962E9210F5DE6E2009A5495 /* VertexTriangleAdjacency.h in Headers */,
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3498	4385	F962E9240F5DE6E2009A5495 /* XFileImporter.h in Headers */,
3499	4386	F962E9250F5DE6E2009A5495 /* XFileParser.h in Headers */,
3500	4387	F962E9280F5DE6E2009A5495 /* MDCFileData.h in Headers */,
3501	4388	F962E9290F5DE6E2009A5495 /* MDCLoader.h in Headers */,
3502	4389	F962E92A0F5DE6E2009A5495 /* MDCNormalTable.h in Headers */,
3503		F962E92B0F5DE6E2009A5495 /* FixNormalsStep.h in Headers */,
3504	4390	F962E92C0F5DE6E2009A5495 /* LWOFileData.h in Headers */,
3505	4391	F962E92D0F5DE6E2009A5495 /* LWOLoader.h in Headers */,
3506	4392	F962E92E0F5DE6E2009A5495 /* HMPFileData.h in Headers */,
3507		F962E9300F5DE6E2009A5495 /* IFF.h in Headers */,
3508		F962E9310F5DE6E2009A5495 /* Hash.h in Headers */,
3509	4393	F962E9360F5DE6E2009A5495 /* ACLoader.h in Headers */,
3510	4394	F962E9370F5DE6E2009A5495 /* IRRLoader.h in Headers */,
3511	4395	F962E9380F5DE6E2009A5495 /* IRRMeshLoader.h in Headers */,
3512	4396	F962E9390F5DE6E2009A5495 /* IRRShared.h in Headers */,
3513		F962E93A0F5DE6E2009A5495 /* ColladaHelper.h in Headers */,
3514		F962E93B0F5DE6E2009A5495 /* ColladaLoader.h in Headers */,
3515		F962E93C0F5DE6E2009A5495 /* ColladaParser.h in Headers */,
3516	4397	F962E93D0F5DE6E2009A5495 /* NFFLoader.h in Headers */,
3517		F962E93E0F5DE6E2009A5495 /* SGSpatialSort.h in Headers */,
3518	4398	F962E93F0F5DE6E2009A5495 /* Q3DLoader.h in Headers */,
3519	4399	F962E9400F5DE6E2009A5495 /* BVHLoader.h in Headers */,
3520	4400	F962E9410F5DE6E2009A5495 /* OFFLoader.h in Headers */,

3522	4402	F962E9430F5DE6E2009A5495 /* DXFLoader.h in Headers */,
3523	4403	F962E9440F5DE6E2009A5495 /* TerragenLoader.h in Headers */,
3524	4404	F962E9450F5DE6E2009A5495 /* irrXMLWrapper.h in Headers */,
3525		F962E9460F5DE6E2009A5495 /* ScenePreprocessor.h in Headers */,
3526		F962E9470F5DE6E2009A5495 /* SceneCombiner.h in Headers */,
3527		F962E9480F5DE6E2009A5495 /* SortByPTypeProcess.h in Headers */,
3528		F962E9490F5DE6E2009A5495 /* FindDegenerates.h in Headers */,
3529		F962E94A0F5DE6E2009A5495 /* ComputeUVMappingProcess.h in Headers */,
3530		F962E94B0F5DE6E2009A5495 /* StandardShapes.h in Headers */,
3531		F962E94C0F5DE6E2009A5495 /* FindInstancesProcess.h in Headers */,
3532		F962E94D0F5DE6E2009A5495 /* RemoveVCProcess.h in Headers */,
3533		F962E94E0F5DE6E2009A5495 /* FindInvalidDataProcess.h in Headers */,
3534		F962E94F0F5DE6E2009A5495 /* SkeletonMeshBuilder.h in Headers */,
3535		F962E9500F5DE6E2009A5495 /* SmoothingGroups.h in Headers */,
3536	4405	F962E9570F5DE6E2009A5495 /* B3DImporter.h in Headers */,
3537	4406	7411B15711416D5E00BCD793 /* CSMLoader.h in Headers */,
3538	4407	7411B16211416DDD00BCD793 /* LWSLoader.h in Headers */,
3539	4408	7411B16C11416DF400BCD793 /* LWOAnimation.h in Headers */,
3540	4409	7411B17911416E2500BCD793 /* MS3DLoader.h in Headers */,
3541	4410	7411B19411416EBC00BCD793 /* UnrealLoader.h in Headers */,
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3543		7411B1D411416EF400BCD793 /* GenericProperty.h in Headers */,
3544		7411B1D511416EF400BCD793 /* MemoryIOWrapper.h in Headers */,
3545		7411B1D711416EF400BCD793 /* OptimizeGraph.h in Headers */,
3546		7411B1D911416EF400BCD793 /* OptimizeMeshes.h in Headers */,
3547		7411B1DA11416EF400BCD793 /* ProcessHelper.h in Headers */,
3548		7411B1DB11416EF400BCD793 /* StdOStreamLogStream.h in Headers */,
3549		7411B1DC11416EF400BCD793 /* StreamReader.h in Headers */,
3550		7411B1DE11416EF400BCD793 /* Subdivision.h in Headers */,
3551		7411B1E011416EF400BCD793 /* TargetAnimation.h in Headers */,
3552		7411B1E111416EF400BCD793 /* Vertex.h in Headers */,
3553	4411	74C9BB5911ACBB1000AF885C /* BlenderDNA.h in Headers */,
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3556	4414	74C9BB5E11ACBB1000AF885C /* BlenderSceneGen.h in Headers */,
3557		74C9BB8511ACBB7800AF885C /* MakeVerboseFormat.h in Headers */,
3558	4415	74C9BB8F11ACBB9900AF885C /* AssimpPCH.h in Headers */,
3559	4416	74C9BBA011ACBBBC00AF885C /* COBLoader.h in Headers */,
3560	4417	74C9BBA111ACBBBC00AF885C /* COBScene.h in Headers */,
3561	4418	74C9BBB711ACBC2600AF885C /* revision.h in Headers */,
3562		74C9BBCB11ACBC6C00AF885C /* Exceptional.h in Headers */,
3563		74C9BBCC11ACBC6C00AF885C /* LineSplitter.h in Headers */,
3564		74C9BBCD11ACBC6C00AF885C /* MD4FileData.h in Headers */,
3565		74C9BBCE11ACBC6C00AF885C /* TinyFormatter.h in Headers */,
3566	4419	8E7ABBB6127E0F1A00512ED1 /* Q3BSPFileData.h in Headers */,
3567	4420	8E7ABBB8127E0F1A00512ED1 /* Q3BSPFileImporter.h in Headers */,
3568	4421	8E7ABBBA127E0F1A00512ED1 /* Q3BSPFileParser.h in Headers */,

3570	4423	8E7ABBCB127E0F2A00512ED1 /* NDOLoader.h in Headers */,
3571	4424	8E7ABBD7127E0F3800512ED1 /* BlenderIntermediate.h in Headers */,
3572	4425	8E7ABBD9127E0F3800512ED1 /* BlenderModifier.h in Headers */,
3573		8E7ABBEB127E0FA400512ED1 /* assbin_chunks.h in Headers */,
3574		8E7ABBEC127E0FA400512ED1 /* DefaultProgressHandler.h in Headers */,
3575		8E7ABBED127E0FA400512ED1 /* Profiler.h in Headers */,
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3577	4426	8E8DEE79127E2B78005EF64D /* ConvertUTF.h in Headers */,
3578	4427	8E8DEE7A127E2B78005EF64D /* CXMLReaderImpl.h in Headers */,
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3619	4468	F9BA8BE21543268400E63FFE /* version.h in Headers */,
3620	4469	F9BA8C42154328B600E63FFE /* OgreImporter.hpp in Headers */,
3621	4470	F9BA8C46154328B600E63FFE /* OgreXmlHelper.hpp in Headers */,
3622		F99A9EB515436077000682F3 /* BlobIOSystem.h in Headers */,
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3624		F99A9EBF154360A0000682F3 /* make_shared.hpp in Headers */,
3625		F99A9EC4154360A5000682F3 /* noncopyable.hpp in Headers */,
3626		F99A9EC9154360B5000682F3 /* timer.hpp in Headers */,
3627		F99A9ECE154360E2000682F3 /* CInterfaceIOWrapper.h in Headers */,
3628		F99A9ED615436125000682F3 /* DeboneProcess.h in Headers */,
3629		F99A9F1E154361D4000682F3 /* LogAux.h in Headers */,
3630		F99A9F2B15436207000682F3 /* M3Importer.h in Headers */,
3631	4471	F99A9F3515436269000682F3 /* PlyExporter.h in Headers */,
3632		F99A9F3C15436286000682F3 /* PolyTools.h in Headers */,
3633		F99A9F46154362DE000682F3 /* ScenePrivate.h in Headers */,
3634		F99A9F4E15436304000682F3 /* SplitByBoneCountProcess.h in Headers */,
3635		F99A9F5F15436323000682F3 /* STEPFile.h in Headers */,
3636		F99A9F6115436323000682F3 /* STEPFileReader.h in Headers */,
3637	4472	F9607074154366AB004D91DD /* crc32.h in Headers */,
3638	4473	F9607076154366AB004D91DD /* deflate.h in Headers */,
3639	4474	F9607078154366AB004D91DD /* inffast.h in Headers */,

3655	4490	F96070F41543675E004D91DD /* sweep.h in Headers */,
3656	4491	F96070F61543675E004D91DD /* sweep_context.h in Headers */,
3657	4492	F97BA03715439DB3009EB9DD /* ai_assert.h in Headers */,
3658		F97BA07D15439FC3009EB9DD /* IFCLoader.h in Headers */,
3659		F97BA08115439FC3009EB9DD /* IFCReaderGen.h in Headers */,
3660		F97BA08315439FC3009EB9DD /* IFCUtil.h in Headers */,
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4044	5214	);
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4046	5216	};

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4053	5223	3AF45B010E4B716800207D74 /* ASELoader.cpp in Sources */,
4054	5224	3AF45B030E4B716800207D74 /* ASEParser.cpp in Sources */,
4055		3AF45B050E4B716800207D74 /* Assimp.cpp in Sources */,
4056		3AF45B060E4B716800207D74 /* BaseImporter.cpp in Sources */,
4057		3AF45B0A0E4B716800207D74 /* CalcTangentsProcess.cpp in Sources */,
4058		3AF45B0C0E4B716800207D74 /* ConvertToLHProcess.cpp in Sources */,
4059		3AF45B0E0E4B716800207D74 /* DefaultIOStream.cpp in Sources */,
4060		3AF45B100E4B716800207D74 /* DefaultIOSystem.cpp in Sources */,
4061		3AF45B120E4B716800207D74 /* DefaultLogger.cpp in Sources */,
4062		3AF45B170E4B716800207D74 /* GenFaceNormalsProcess.cpp in Sources */,
4063		3AF45B190E4B716800207D74 /* GenVertexNormalsProcess.cpp in Sources */,
4064	5225	3AF45B1D0E4B716800207D74 /* HMPLoader.cpp in Sources */,
4065		3AF45B1F0E4B716800207D74 /* Importer.cpp in Sources */,
4066		3AF45B200E4B716800207D74 /* ImproveCacheLocality.cpp in Sources */,
4067		3AF45B220E4B716800207D74 /* JoinVerticesProcess.cpp in Sources */,
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4072	5228	3AF45B340E4B716800207D74 /* MD5Loader.cpp in Sources */,
4073	5229	3AF45B360E4B716800207D74 /* MD5Parser.cpp in Sources */,
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4082		3AF45B4D0E4B716800207D74 /* RemoveComments.cpp in Sources */,
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4084	5234	3AF45B520E4B716800207D74 /* SMDLoader.cpp in Sources */,
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4086		3AF45B560E4B716800207D74 /* SplitLargeMeshes.cpp in Sources */,
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4090		3AF45B5F0E4B716800207D74 /* ValidateDataStructure.cpp in Sources */,
4091		3AF45B610E4B716800207D74 /* VertexTriangleAdjacency.cpp in Sources */,
4092	5235	3AF45B650E4B716800207D74 /* XFileImporter.cpp in Sources */,
4093	5236	3AF45B670E4B716800207D74 /* XFileParser.cpp in Sources */,
4094	5237	3AB8A3B00E50D67A00606590 /* MDCLoader.cpp in Sources */,
4095		3AB8A3B50E50D69D00606590 /* FixNormalsStep.cpp in Sources */,
4096	5238	3AB8A3BB0E50D6DB00606590 /* LWOLoader.cpp in Sources */,
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4098	5239	3AB8A7DD0E53715F00606590 /* LWOMaterial.cpp in Sources */,
4099	5240	F90BAFD20F5DD87000124155 /* ACLoader.cpp in Sources */,
4100	5241	F90BAFDF0F5DD90800124155 /* IRRLoader.cpp in Sources */,
4101	5242	F90BAFE10F5DD90800124155 /* IRRMeshLoader.cpp in Sources */,
4102	5243	F90BAFE30F5DD90800124155 /* IRRShared.cpp in Sources */,
4103		F90BAFEE0F5DD93600124155 /* ColladaLoader.cpp in Sources */,
4104		F90BAFF00F5DD93600124155 /* ColladaParser.cpp in Sources */,
4105	5244	F90BAFF80F5DD96100124155 /* NFFLoader.cpp in Sources */,
4106		F90BAFFE0F5DD9A000124155 /* SGSpatialSort.cpp in Sources */,
4107	5245	F90BB0080F5DD9DD00124155 /* Q3DLoader.cpp in Sources */,
4108	5246	F90BB00F0F5DD9F400124155 /* BVHLoader.cpp in Sources */,
4109	5247	F90BB0160F5DDA1400124155 /* OFFLoader.cpp in Sources */,

4111	5249	F90BB0240F5DDA5700124155 /* DXFLoader.cpp in Sources */,
4112	5250	F90BB0280F5DDA9200124155 /* LWOBLoader.cpp in Sources */,
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4116		F90BB0450F5DDB4600124155 /* SortByPTypeProcess.cpp in Sources */,
4117		F90BB04A0F5DDB6100124155 /* FindDegenerates.cpp in Sources */,
4118		F90BB04F0F5DDB8D00124155 /* ComputeUVMappingProcess.cpp in Sources */,
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4125	5253	7411B15411416D5E00BCD793 /* CSMLoader.cpp in Sources */,
4126	5254	7411B15F11416DDD00BCD793 /* LWSLoader.cpp in Sources */,
4127	5255	7411B16911416DF400BCD793 /* LWOAnimation.cpp in Sources */,
4128	5256	7411B17611416E2500BCD793 /* MS3DLoader.cpp in Sources */,
4129	5257	7411B19111416EBC00BCD793 /* UnrealLoader.cpp in Sources */,
4130		7411B1C711416EF400BCD793 /* OptimizeGraph.cpp in Sources */,
4131		7411B1C911416EF400BCD793 /* OptimizeMeshes.cpp in Sources */,
4132		7411B1CE11416EF400BCD793 /* Subdivision.cpp in Sources */,
4133		7411B1D011416EF400BCD793 /* TargetAnimation.cpp in Sources */,
4134	5258	74C9BB5111ACBB1000AF885C /* BlenderDNA.cpp in Sources */,
4135	5259	74C9BB5311ACBB1000AF885C /* BlenderLoader.cpp in Sources */,
4136	5260	74C9BB5511ACBB1000AF885C /* BlenderScene.cpp in Sources */,
4137		74C9BB8211ACBB7800AF885C /* MakeVerboseFormat.cpp in Sources */,
4138	5261	74C9BB8C11ACBB9900AF885C /* AssimpPCH.cpp in Sources */,
4139	5262	74C9BB9C11ACBBBC00AF885C /* COBLoader.cpp in Sources */,
4140	5263	8E7ABBB0127E0F1A00512ED1 /* Q3BSPFileImporter.cpp in Sources */,

4150	5273	F9BA8C3D154328B600E63FFE /* OgreMaterial.cpp in Sources */,
4151	5274	F9BA8C3E154328B600E63FFE /* OgreMesh.cpp in Sources */,
4152	5275	F9BA8C3F154328B600E63FFE /* OgreSkeleton.cpp in Sources */,
4153		F99A9ED315436125000682F3 /* DeboneProcess.cpp in Sources */,
4154		F99A9F18154361AD000682F3 /* ImporterRegistry.cpp in Sources */,
4155		F99A9F2815436207000682F3 /* M3Importer.cpp in Sources */,
4156	5276	F99A9F3215436269000682F3 /* PlyExporter.cpp in Sources */,
4157		F99A9F401543629F000682F3 /* PostStepRegistry.cpp in Sources */,
4158		F99A9F4B15436304000682F3 /* SplitByBoneCountProcess.cpp in Sources */,
4159		F99A9F5D15436323000682F3 /* STEPFileReader.cpp in Sources */,
4160		F9606FF3154364E5004D91DD /* ProcessHelper.cpp in Sources */,
4161	5277	F960705D154366AB004D91DD /* adler32.c in Sources */,
4162	5278	F960705E154366AB004D91DD /* compress.c in Sources */,
4163	5279	F960705F154366AB004D91DD /* crc32.c in Sources */,

4174	5290	F96070E51543675E004D91DD /* cdt.cc in Sources */,
4175	5291	F96070E71543675E004D91DD /* sweep.cc in Sources */,
4176	5292	F96070E91543675E004D91DD /* sweep_context.cc in Sources */,
4177		F97BA07015439FC3009EB9DD /* IFCCurve.cpp in Sources */,
4178		F97BA07115439FC3009EB9DD /* IFCGeometry.cpp in Sources */,
4179		F97BA07215439FC3009EB9DD /* IFCLoader.cpp in Sources */,
4180		F97BA07415439FC3009EB9DD /* IFCMaterial.cpp in Sources */,
4181		F97BA07515439FC3009EB9DD /* IFCProfile.cpp in Sources */,
4182		F97BA07615439FC3009EB9DD /* IFCReaderGen.cpp in Sources */,
4183		F97BA07815439FC3009EB9DD /* IFCUtil.cpp in Sources */,
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4184	5376	);
4185	5377	runOnlyForDeploymentPostprocessing = 0;
4186	5378	};

4192	5384	F962E88C0F5DE6C8009A5495 /* 3DSLoader.cpp in Sources */,
4193	5385	F962E88E0F5DE6C8009A5495 /* ASELoader.cpp in Sources */,
4194	5386	F962E88F0F5DE6C8009A5495 /* ASEParser.cpp in Sources */,
4195		F962E8900F5DE6C8009A5495 /* Assimp.cpp in Sources */,
4196		F962E8910F5DE6C8009A5495 /* BaseImporter.cpp in Sources */,
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4198		F962E8930F5DE6C8009A5495 /* ConvertToLHProcess.cpp in Sources */,
4199		F962E8940F5DE6C8009A5495 /* DefaultIOStream.cpp in Sources */,
4200		F962E8950F5DE6C8009A5495 /* DefaultIOSystem.cpp in Sources */,
4201		F962E8960F5DE6C8009A5495 /* DefaultLogger.cpp in Sources */,
4202		F962E8980F5DE6C8009A5495 /* GenFaceNormalsProcess.cpp in Sources */,
4203		F962E8990F5DE6C8009A5495 /* GenVertexNormalsProcess.cpp in Sources */,
4204	5387	F962E89A0F5DE6C8009A5495 /* HMPLoader.cpp in Sources */,
4205		F962E89B0F5DE6C8009A5495 /* Importer.cpp in Sources */,
4206		F962E89C0F5DE6C8009A5495 /* ImproveCacheLocality.cpp in Sources */,
4207		F962E89D0F5DE6C8009A5495 /* JoinVerticesProcess.cpp in Sources */,
4208		F962E89E0F5DE6C8009A5495 /* LimitBoneWeightsProcess.cpp in Sources */,
4209		F962E89F0F5DE6C8009A5495 /* MaterialSystem.cpp in Sources */,
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