GLE-based extrusion node-types

Modules
		OpenGL.arrays vrml.cache OpenGLContext.displaylist OpenGL.GLE.exceptional vrml.field logging vrml.node vrml.vrml97.nodetypes OpenGL.raw.GLE OpenGL.raw.GLE.annotations OpenGL.wrapper

Classes
		Node(object) GLEGeom(Geometry, Node) Lathe Screw Spiral Geometry(object) GLEGeom(Geometry, Node) Lathe Screw Spiral   class GLEGeom(Geometry, Node)     Base class for GLE geometry types   Provides the common operations and data seen in the GLE geometry types.   Attributes:     textureMode -- specification of texture-coordinate         generation mode to be passed to GLE, include:             "mod" -- if present, use model view coordinates             "ver"/"norm" -- vertex/normal mode             "flat"/"cyl"/"sphere" -- flat, cylinder or                 spherical coordinate generation         See:             http://pyopengl.sourceforge.net/documentation/manual/gleTextureMode.3GLE.xml         for semantics of the various modes.     Method resolution order: GLEGeom Geometry Node object Methods defined here: compile(self, mode=None) Compile the geometry as a display-list do(self) Do the low-level rendering render(self, visible=1, lit=1, textured=1, transparent=0, mode=None) Render the geometry Data descriptors defined here: sides exposedField SFInt32 sides 32 textureMode exposedField SFString textureMode Data and other attributes defined here: textureFormats = (('mod', (('vert', (('flat', GLE_TEXTURE_VERTEX_MODEL_FLAT), ('cyl', GLE_TEXTURE_VERTEX_MODEL_CYL), ('sph', GLE_TEXTURE_VERTEX_MODEL_SPH))), ('norm', (('flat', GLE_TEXTURE_NORMAL_MODEL_FLAT), ('cyl', GLE_TEXTURE_NORMAL_MODEL_CYL), ('sph', GLE_TEXTURE_NORMAL_MODEL_SPH))))), ('', (('vert', (('flat', GLE_TEXTURE_VERTEX_FLAT), ('cyl', GLE_TEXTURE_VERTEX_CYL), ('sph', GLE_TEXTURE_VERTEX_SPH))), ('norm', (('flat', GLE_TEXTURE_NORMAL_FLAT), ('cyl', GLE_TEXTURE_NORMAL_CYL), ('sph', GLE_TEXTURE_NORMAL_SPH)))))) Data descriptors inherited from Geometry: __dict__ dictionary for instance variables (if defined) __weakref__ list of weak references to the object (if defined) Methods inherited from Node: __init__(self, **namedarguments) Initialise the node with appropriate named args   All properties/attributes must be specified with named arguments, and the property/attribute must exist within the Node's class/prototype.   This will raise AttributeError/ValueError/TypeError if the values or the property names are inappropriate.   Note that all Node objects have the attribute/property     exposedField SFString DEF "" defined.  You may therefore specify a DEF name by passing it as a named argument. __repr__(self) Get a code-like representation of the Node   Basically every attribute except for sub-nodes values are returned as a full representation. __str__(self) Get a friendly representation of the Node copy(self, copier=None) Copy this node for copier toString(self, **namedargs) Generate a VRML 97-syntax string representing this Prototype **namedargs -- key:value     passed arguments for the linearisation object see lineariser4.Lineariser Data descriptors inherited from Node: DEF exposedField SFString  DEF externalURL exposedField MFString externalURL [] rootSceneGraph exposedField RootScenegraphNode SFNode NULL Data and other attributes inherited from Node: PROTO = ''   class Lathe(GLEGeom)     Lathe of contour around a spiral (or circle)   contour -- the shape being swept normals -- normals to the contour up -- the 3D vector orienting the contour startRadius -- initial radius of the spiral deltaRadius -- change in radius of spiral for each spiral rotation startZ -- starting Z coordinate for the spiral deltaZ -- change in Z coordinate for each spiral rotation startAngle -- angle at which spiral starts (in radians) totalAngle -- angle included in the spiral (in radians)   sides -- number of divisions in a rotation   http://pyopengl.sourceforge.net/documentation/manual/gleLathe.3GLE.xml     Method resolution order: Lathe GLEGeom Geometry Node object Methods defined here: do(self) Data descriptors defined here: contour exposedField MFVec2f contour [] deltaRadius exposedField SFFloat deltaRadius 0.0 deltaZ exposedField SFFloat deltaZ 0.0 normals exposedField MFVec2f normals [] startAngle exposedField SFFloat startAngle 0.0 startRadius exposedField SFFloat startRadius 1.0 startZ exposedField SFFloat startZ 0.0 totalAngle exposedField SFFloat totalAngle 3.14159265359 up exposedField SFVec3f up (1, 0, 0) Methods inherited from GLEGeom: compile(self, mode=None) Compile the geometry as a display-list render(self, visible=1, lit=1, textured=1, transparent=0, mode=None) Render the geometry Data descriptors inherited from GLEGeom: sides exposedField SFInt32 sides 32 textureMode exposedField SFString textureMode Data and other attributes inherited from GLEGeom: textureFormats = (('mod', (('vert', (('flat', GLE_TEXTURE_VERTEX_MODEL_FLAT), ('cyl', GLE_TEXTURE_VERTEX_MODEL_CYL), ('sph', GLE_TEXTURE_VERTEX_MODEL_SPH))), ('norm', (('flat', GLE_TEXTURE_NORMAL_MODEL_FLAT), ('cyl', GLE_TEXTURE_NORMAL_MODEL_CYL), ('sph', GLE_TEXTURE_NORMAL_MODEL_SPH))))), ('', (('vert', (('flat', GLE_TEXTURE_VERTEX_FLAT), ('cyl', GLE_TEXTURE_VERTEX_CYL), ('sph', GLE_TEXTURE_VERTEX_SPH))), ('norm', (('flat', GLE_TEXTURE_NORMAL_FLAT), ('cyl', GLE_TEXTURE_NORMAL_CYL), ('sph', GLE_TEXTURE_NORMAL_SPH)))))) Data descriptors inherited from Geometry: __dict__ dictionary for instance variables (if defined) __weakref__ list of weak references to the object (if defined) Methods inherited from Node: __init__(self, **namedarguments) Initialise the node with appropriate named args   All properties/attributes must be specified with named arguments, and the property/attribute must exist within the Node's class/prototype.   This will raise AttributeError/ValueError/TypeError if the values or the property names are inappropriate.   Note that all Node objects have the attribute/property     exposedField SFString DEF "" defined.  You may therefore specify a DEF name by passing it as a named argument. __repr__(self) Get a code-like representation of the Node   Basically every attribute except for sub-nodes values are returned as a full representation. __str__(self) Get a friendly representation of the Node copy(self, copier=None) Copy this node for copier toString(self, **namedargs) Generate a VRML 97-syntax string representing this Prototype **namedargs -- key:value     passed arguments for the linearisation object see lineariser4.Lineariser Data descriptors inherited from Node: DEF exposedField SFString  DEF externalURL exposedField MFString externalURL [] rootSceneGraph exposedField RootScenegraphNode SFNode NULL Data and other attributes inherited from Node: PROTO = ''   class Screw(GLEGeom)     Linear extrusion with twisting   contour -- the shape being swept normals -- normals to the contour up -- the 3D vector orienting the contour startZ -- starting Z coordinate for the spiral endZ -- ending Z coordinate for each spiral rotation totalAngle -- total angle of rotation across length (radians)   sides -- number of divisions in a rotation   http://pyopengl.sourceforge.net/documentation/manual/gleScrew.3GLE.xml     Method resolution order: Screw GLEGeom Geometry Node object Methods defined here: do(self) Data descriptors defined here: contour exposedField MFVec2f contour [] endZ exposedField SFFloat endZ 0.0 normals exposedField MFVec2f normals [] startZ exposedField SFFloat startZ 0.0 totalAngle exposedField SFFloat totalAngle 3.14159265359 up exposedField SFVec3f up (1, 0, 0) Methods inherited from GLEGeom: compile(self, mode=None) Compile the geometry as a display-list render(self, visible=1, lit=1, textured=1, transparent=0, mode=None) Render the geometry Data descriptors inherited from GLEGeom: sides exposedField SFInt32 sides 32 textureMode exposedField SFString textureMode Data and other attributes inherited from GLEGeom: textureFormats = (('mod', (('vert', (('flat', GLE_TEXTURE_VERTEX_MODEL_FLAT), ('cyl', GLE_TEXTURE_VERTEX_MODEL_CYL), ('sph', GLE_TEXTURE_VERTEX_MODEL_SPH))), ('norm', (('flat', GLE_TEXTURE_NORMAL_MODEL_FLAT), ('cyl', GLE_TEXTURE_NORMAL_MODEL_CYL), ('sph', GLE_TEXTURE_NORMAL_MODEL_SPH))))), ('', (('vert', (('flat', GLE_TEXTURE_VERTEX_FLAT), ('cyl', GLE_TEXTURE_VERTEX_CYL), ('sph', GLE_TEXTURE_VERTEX_SPH))), ('norm', (('flat', GLE_TEXTURE_NORMAL_FLAT), ('cyl', GLE_TEXTURE_NORMAL_CYL), ('sph', GLE_TEXTURE_NORMAL_SPH)))))) Data descriptors inherited from Geometry: __dict__ dictionary for instance variables (if defined) __weakref__ list of weak references to the object (if defined) Methods inherited from Node: __init__(self, **namedarguments) Initialise the node with appropriate named args   All properties/attributes must be specified with named arguments, and the property/attribute must exist within the Node's class/prototype.   This will raise AttributeError/ValueError/TypeError if the values or the property names are inappropriate.   Note that all Node objects have the attribute/property     exposedField SFString DEF "" defined.  You may therefore specify a DEF name by passing it as a named argument. __repr__(self) Get a code-like representation of the Node   Basically every attribute except for sub-nodes values are returned as a full representation. __str__(self) Get a friendly representation of the Node copy(self, copier=None) Copy this node for copier toString(self, **namedargs) Generate a VRML 97-syntax string representing this Prototype **namedargs -- key:value     passed arguments for the linearisation object see lineariser4.Lineariser Data descriptors inherited from Node: DEF exposedField SFString  DEF externalURL exposedField MFString externalURL [] rootSceneGraph exposedField RootScenegraphNode SFNode NULL Data and other attributes inherited from Node: PROTO = ''   class Spiral(GLEGeom)     Banked spiral geometry   contour -- the shape being swept normals -- normals to the contour up -- the 3D vector orienting the contour startRadius -- initial radius of the spiral deltaRadius -- change in radius of spiral for each spiral rotation startZ -- starting Z coordinate for the spiral deltaZ -- change in Z coordinate for each spiral rotation startAngle -- angle at which spiral starts (in radians) totalAngle -- angle included in the spiral (in radians)   sides -- number of divisions in a rotation   http://pyopengl.sourceforge.net/documentation/manual/gleSpiral.3GLE.xml     Method resolution order: Spiral GLEGeom Geometry Node object Methods defined here: do(self) Data descriptors defined here: contour exposedField MFVec2f contour [] deltaRadius exposedField SFFloat deltaRadius 0.0 deltaZ exposedField SFFloat deltaZ 0.0 normals exposedField MFVec2f normals [] startAngle exposedField SFFloat startAngle 0.0 startRadius exposedField SFFloat startRadius 1.0 startZ exposedField SFFloat startZ 0.0 totalAngle exposedField SFFloat totalAngle 3.14159265359 up exposedField SFVec3f up (1, 0, 0) Methods inherited from GLEGeom: compile(self, mode=None) Compile the geometry as a display-list render(self, visible=1, lit=1, textured=1, transparent=0, mode=None) Render the geometry Data descriptors inherited from GLEGeom: sides exposedField SFInt32 sides 32 textureMode exposedField SFString textureMode Data and other attributes inherited from GLEGeom: textureFormats = (('mod', (('vert', (('flat', GLE_TEXTURE_VERTEX_MODEL_FLAT), ('cyl', GLE_TEXTURE_VERTEX_MODEL_CYL), ('sph', GLE_TEXTURE_VERTEX_MODEL_SPH))), ('norm', (('flat', GLE_TEXTURE_NORMAL_MODEL_FLAT), ('cyl', GLE_TEXTURE_NORMAL_MODEL_CYL), ('sph', GLE_TEXTURE_NORMAL_MODEL_SPH))))), ('', (('vert', (('flat', GLE_TEXTURE_VERTEX_FLAT), ('cyl', GLE_TEXTURE_VERTEX_CYL), ('sph', GLE_TEXTURE_VERTEX_SPH))), ('norm', (('flat', GLE_TEXTURE_NORMAL_FLAT), ('cyl', GLE_TEXTURE_NORMAL_CYL), ('sph', GLE_TEXTURE_NORMAL_SPH)))))) Data descriptors inherited from Geometry: __dict__ dictionary for instance variables (if defined) __weakref__ list of weak references to the object (if defined) Methods inherited from Node: __init__(self, **namedarguments) Initialise the node with appropriate named args   All properties/attributes must be specified with named arguments, and the property/attribute must exist within the Node's class/prototype.   This will raise AttributeError/ValueError/TypeError if the values or the property names are inappropriate.   Note that all Node objects have the attribute/property     exposedField SFString DEF "" defined.  You may therefore specify a DEF name by passing it as a named argument. __repr__(self) Get a code-like representation of the Node   Basically every attribute except for sub-nodes values are returned as a full representation. __str__(self) Get a friendly representation of the Node copy(self, copier=None) Copy this node for copier toString(self, **namedargs) Generate a VRML 97-syntax string representing this Prototype **namedargs -- key:value     passed arguments for the linearisation object see lineariser4.Lineariser Data descriptors inherited from Node: DEF exposedField SFString  DEF externalURL exposedField MFString externalURL [] rootSceneGraph exposedField RootScenegraphNode SFNode NULL Data and other attributes inherited from Node: PROTO = ''

Functions
		gleExtrusion( contour,cont_normal,up,point_array,color_array ) pyConverters: contour=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), cont_normal=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), up=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), point_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), color_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa2a00> ) cConverters: ncp=<OpenGL.GLE.exceptional._lengthOfArgname object>, contour=getPyArgsName( 'contour' ), cont_normal=getPyArgsName( 'cont_normal' ), up=getPyArgsName( 'up' ), npoints=<OpenGL.GLE.exceptional._lengthOfArgname object>, point_array=getPyArgsName( 'point_array' ), color_array=getPyArgsName( 'color_array' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'contour' ) Wrapping Operation: gleExtrusion( c_int(ncp), arrays.GLdoubleArray(contour), arrays.GLdoubleArray(cont_normal), arrays.GLdoubleArray(up), c_int(npoints), arrays.GLdoubleArray(point_array), arrays.GLfloatArray(color_array) ) -> None gleGetJoinStyle(...) gleGetJoinStyle(  ) -> c_int gleGetNumSides(...) gleGetNumSides(  ) -> c_int gleHelicoid( rToroid,startRadius,drdTheta,startZ,dzdTheta,startXform,dXformdTheta,startTheta,sweepTheta ) pyConverters: rToroid=None, startRadius=None, drdTheta=None, startZ=None, dzdTheta=None, startXform=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), dXformdTheta=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), startTheta=None, sweepTheta=None cConverters: rToroid=None, startRadius=None, drdTheta=None, startZ=None, dzdTheta=None, startXform=getPyArgsName( 'startXform' ), dXformdTheta=getPyArgsName( 'dXformdTheta' ), startTheta=None, sweepTheta=None cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'startXform' ) Wrapping Operation: gleHelicoid( gleDouble(rToroid), gleDouble(startRadius), gleDouble(drdTheta), gleDouble(startZ), gleDouble(dzdTheta), arrays.GLdoubleArray(startXform), arrays.GLdoubleArray(dXformdTheta), gleDouble(startTheta), gleDouble(sweepTheta) ) -> None gleLathe( contour,cont_normal,up,startRadius,drdTheta,startZ,dzdTheta,startXform,dXformdTheta,startTheta,sweepTheta ) pyConverters: contour=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), cont_normal=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), up=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), startRadius=None, drdTheta=None, startZ=None, dzdTheta=None, startXform=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), dXformdTheta=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), startTheta=None, sweepTheta=None cConverters: ncp=<OpenGL.GLE.exceptional._lengthOfArgname object>, contour=getPyArgsName( 'contour' ), cont_normal=getPyArgsName( 'cont_normal' ), up=getPyArgsName( 'up' ), startRadius=None, drdTheta=None, startZ=None, dzdTheta=None, startXform=getPyArgsName( 'startXform' ), dXformdTheta=getPyArgsName( 'dXformdTheta' ), startTheta=None, sweepTheta=None cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'contour' ) Wrapping Operation: gleLathe( c_int(ncp), arrays.GLdoubleArray(contour), arrays.GLdoubleArray(cont_normal), arrays.GLdoubleArray(up), gleDouble(startRadius), gleDouble(drdTheta), gleDouble(startZ), gleDouble(dzdTheta), arrays.GLdoubleArray(startXform), arrays.GLdoubleArray(dXformdTheta), gleDouble(startTheta), gleDouble(sweepTheta) ) -> None glePolyCone( point_array,color_array,radius_array ) pyConverters: point_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), color_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa2a00> ), radius_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: npoints=<OpenGL.GLE.exceptional._lengthOfArgname object>, point_array=getPyArgsName( 'point_array' ), color_array=getPyArgsName( 'color_array' ), radius_array=getPyArgsName( 'radius_array' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'point_array' ) Wrapping Operation: glePolyCone( c_int(npoints), arrays.GLdoubleArray(point_array), arrays.GLfloatArray(color_array), arrays.GLdoubleArray(radius_array) ) -> None glePolyCylinder( point_array,color_array,radius ) pyConverters: point_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), color_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa2a00> ), radius=None cConverters: npoints=<OpenGL.GLE.exceptional._lengthOfArgname object>, point_array=getPyArgsName( 'point_array' ), color_array=getPyArgsName( 'color_array' ), radius=None cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'point_array' ) Wrapping Operation: glePolyCylinder( c_int(npoints), arrays.GLdoubleArray(point_array), arrays.GLfloatArray(color_array), gleDouble(radius) ) -> None gleScrew( contour,cont_normal,up,startz,endz,twist ) pyConverters: contour=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), cont_normal=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), up=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), startz=None, endz=None, twist=None cConverters: ncp=<OpenGL.GLE.exceptional._lengthOfArgname object>, contour=getPyArgsName( 'contour' ), cont_normal=getPyArgsName( 'cont_normal' ), up=getPyArgsName( 'up' ), startz=None, endz=None, twist=None cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'contour' ) Wrapping Operation: gleScrew( c_int(ncp), arrays.GLdoubleArray(contour), arrays.GLdoubleArray(cont_normal), arrays.GLdoubleArray(up), gleDouble(startz), gleDouble(endz), gleDouble(twist) ) -> None gleSetJoinStyle(...) gleSetJoinStyle( c_int(style) ) -> None gleSetNumSides(...) gleSetNumSides( c_int(slices) ) -> None gleSpiral( contour,cont_normal,up,startRadius,drdTheta,startZ,dzdTheta,startXform,dXformdTheta,startTheta,sweepTheta ) pyConverters: contour=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), cont_normal=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), up=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), startRadius=None, drdTheta=None, startZ=None, dzdTheta=None, startXform=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), dXformdTheta=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), startTheta=None, sweepTheta=None cConverters: ncp=<OpenGL.GLE.exceptional._lengthOfArgname object>, contour=getPyArgsName( 'contour' ), cont_normal=getPyArgsName( 'cont_normal' ), up=getPyArgsName( 'up' ), startRadius=None, drdTheta=None, startZ=None, dzdTheta=None, startXform=getPyArgsName( 'startXform' ), dXformdTheta=getPyArgsName( 'dXformdTheta' ), startTheta=None, sweepTheta=None cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'contour' ) Wrapping Operation: gleSpiral( c_int(ncp), arrays.GLdoubleArray(contour), arrays.GLdoubleArray(cont_normal), arrays.GLdoubleArray(up), gleDouble(startRadius), gleDouble(drdTheta), gleDouble(startZ), gleDouble(dzdTheta), arrays.GLdoubleArray(startXform), arrays.GLdoubleArray(dXformdTheta), gleDouble(startTheta), gleDouble(sweepTheta) ) -> None gleSuperExtrusion( contour,cont_normal,up,point_array,color_array,xform_array ) pyConverters: contour=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), cont_normal=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), up=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), point_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), color_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa2a00> ), xform_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: ncp=<OpenGL.GLE.exceptional._lengthOfArgname object>, contour=getPyArgsName( 'contour' ), cont_normal=getPyArgsName( 'cont_normal' ), up=getPyArgsName( 'up' ), npoints=<OpenGL.GLE.exceptional._lengthOfArgname object>, point_array=getPyArgsName( 'point_array' ), color_array=getPyArgsName( 'color_array' ), xform_array=getPyArgsName( 'xform_array' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'contour' ) Wrapping Operation: gleSuperExtrusion( c_int(ncp), arrays.GLdoubleArray(contour), arrays.GLdoubleArray(cont_normal), arrays.GLdoubleArray(up), c_int(npoints), arrays.GLdoubleArray(point_array), arrays.GLfloatArray(color_array), arrays.GLdoubleArray(xform_array) ) -> None gleTextureMode(...) gleTextureMode( c_int(mode) ) -> None gleToroid( rToroid,startRadius,drdTheta,startZ,dzdTheta,startXform,dXformdTheta,startTheta,sweepTheta ) pyConverters: rToroid=None, startRadius=None, drdTheta=None, startZ=None, dzdTheta=None, startXform=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), dXformdTheta=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), startTheta=None, sweepTheta=None cConverters: rToroid=None, startRadius=None, drdTheta=None, startZ=None, dzdTheta=None, startXform=getPyArgsName( 'startXform' ), dXformdTheta=getPyArgsName( 'dXformdTheta' ), startTheta=None, sweepTheta=None cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'startXform' ) Wrapping Operation: gleToroid( gleDouble(rToroid), gleDouble(startRadius), gleDouble(drdTheta), gleDouble(startZ), gleDouble(dzdTheta), arrays.GLdoubleArray(startXform), arrays.GLdoubleArray(dXformdTheta), gleDouble(startTheta), gleDouble(sweepTheta) ) -> None gleTwistExtrusion( contour,cont_normal,up,point_array,color_array,twist_array ) pyConverters: contour=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), cont_normal=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), up=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), point_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), color_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa2a00> ), twist_array=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: ncp=<OpenGL.GLE.exceptional._lengthOfArgname object>, contour=getPyArgsName( 'contour' ), cont_normal=getPyArgsName( 'cont_normal' ), up=getPyArgsName( 'up' ), npoints=<OpenGL.GLE.exceptional._lengthOfArgname object>, point_array=getPyArgsName( 'point_array' ), color_array=getPyArgsName( 'color_array' ), twist_array=getPyArgsName( 'twist_array' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'contour' ) Wrapping Operation: gleTwistExtrusion( c_int(ncp), arrays.GLdoubleArray(contour), arrays.GLdoubleArray(cont_normal), arrays.GLdoubleArray(up), c_int(npoints), arrays.GLdoubleArray(point_array), arrays.GLfloatArray(color_array), arrays.GLdoubleArray(twist_array) ) -> None rot_about_axis( angle,axis ) pyConverters: angle=None, axis=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: angle=None, axis=getPyArgsName( 'axis' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'axis' ) Wrapping Operation: rot_about_axis( gleDouble(angle), arrays.GLdoubleArray(axis) ) -> None rot_axis( omega,axis ) pyConverters: omega=None, axis=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: omega=None, axis=getPyArgsName( 'axis' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'axis' ) Wrapping Operation: rot_axis( gleDouble(omega), arrays.GLdoubleArray(axis) ) -> None rot_omega( axis ) pyConverters: axis=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: axis=getPyArgsName( 'axis' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'axis' ) Wrapping Operation: rot_omega( arrays.GLdoubleArray(axis) ) -> None rot_prince(...) rot_prince( gleDouble(omega), c_char(axis) ) -> None urot_about_axis( m,angle,axis ) pyConverters: m=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), angle=None, axis=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: m=getPyArgsName( 'm' ), angle=None, axis=getPyArgsName( 'axis' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'm' ) Wrapping Operation: urot_about_axis( arrays.GLdoubleArray(m), gleDouble(angle), arrays.GLdoubleArray(axis) ) -> None urot_axis( m,omega,axis ) pyConverters: m=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), omega=None, axis=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: m=getPyArgsName( 'm' ), omega=None, axis=getPyArgsName( 'axis' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'm' ) Wrapping Operation: urot_axis( arrays.GLdoubleArray(m), gleDouble(omega), arrays.GLdoubleArray(axis) ) -> None urot_omega( m,axis ) pyConverters: m=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), axis=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: m=getPyArgsName( 'm' ), axis=getPyArgsName( 'axis' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'm' ) Wrapping Operation: urot_omega( arrays.GLdoubleArray(m), arrays.GLdoubleArray(axis) ) -> None urot_prince( m,omega,axis ) pyConverters: m=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), omega=None, axis=None cConverters: m=getPyArgsName( 'm' ), omega=None, axis=None cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'm' ) Wrapping Operation: urot_prince( arrays.GLdoubleArray(m), gleDouble(omega), c_char(axis) ) -> None uview_direction( m,v21,up ) pyConverters: m=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), v21=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), up=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: m=getPyArgsName( 'm' ), v21=getPyArgsName( 'v21' ), up=getPyArgsName( 'up' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'm' ) Wrapping Operation: uview_direction( arrays.GLdoubleArray(m), arrays.GLdoubleArray(v21), arrays.GLdoubleArray(up) ) -> None uviewpoint( m,v1,v2,up ) pyConverters: m=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), v1=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), v2=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ), up=CallFuncPyConverter( <built-in method asArray of...rraydatatype.ArrayDatatype object at 0x2fa29b0> ) cConverters: m=getPyArgsName( 'm' ), v1=getPyArgsName( 'v1' ), v2=getPyArgsName( 'v2' ), up=getPyArgsName( 'up' ) cResolvers: Not Used storeValues: Not Used returnValues: returnPyArgument( 'm' ) Wrapping Operation: uviewpoint( arrays.GLdoubleArray(m), arrays.GLdoubleArray(v1), arrays.GLdoubleArray(v2), arrays.GLdoubleArray(up) ) -> None

Data
		GLE_TEXTURE_ENABLE = GLE_TEXTURE_ENABLE GLE_TEXTURE_NORMAL_CYL = GLE_TEXTURE_NORMAL_CYL GLE_TEXTURE_NORMAL_FLAT = GLE_TEXTURE_NORMAL_FLAT GLE_TEXTURE_NORMAL_MODEL_CYL = GLE_TEXTURE_NORMAL_MODEL_CYL GLE_TEXTURE_NORMAL_MODEL_FLAT = GLE_TEXTURE_NORMAL_MODEL_FLAT GLE_TEXTURE_NORMAL_MODEL_SPH = GLE_TEXTURE_NORMAL_MODEL_SPH GLE_TEXTURE_NORMAL_SPH = GLE_TEXTURE_NORMAL_SPH GLE_TEXTURE_STYLE_MASK = GLE_TEXTURE_STYLE_MASK GLE_TEXTURE_VERTEX_CYL = GLE_TEXTURE_VERTEX_CYL GLE_TEXTURE_VERTEX_FLAT = GLE_TEXTURE_VERTEX_FLAT GLE_TEXTURE_VERTEX_MODEL_CYL = GLE_TEXTURE_VERTEX_MODEL_CYL GLE_TEXTURE_VERTEX_MODEL_FLAT = GLE_TEXTURE_VERTEX_MODEL_FLAT GLE_TEXTURE_VERTEX_MODEL_SPH = GLE_TEXTURE_VERTEX_MODEL_SPH GLE_TEXTURE_VERTEX_SPH = GLE_TEXTURE_VERTEX_SPH RAD_TO_DEG = 114.59155902616465 TUBE_CONTOUR_CLOSED = TUBE_CONTOUR_CLOSED TUBE_JN_ANGLE = TUBE_JN_ANGLE TUBE_JN_CAP = TUBE_JN_CAP TUBE_JN_CUT = TUBE_JN_CUT TUBE_JN_MASK = TUBE_JN_MASK TUBE_JN_RAW = TUBE_JN_RAW TUBE_JN_ROUND = TUBE_JN_ROUND TUBE_NORM_EDGE = TUBE_NORM_EDGE TUBE_NORM_FACET = TUBE_NORM_FACET TUBE_NORM_MASK = TUBE_NORM_MASK TUBE_NORM_PATH_EDGE = TUBE_NORM_PATH_EDGE __file__ = '/home/mcfletch/pylive/OpenGLContext/scenegraph/extrusions.pyc' __name__ = 'OpenGLContext.scenegraph.extrusions' __package__ = 'OpenGLContext.scenegraph' log = <logging.Logger object>