//****************************************************************************
// saveXsiFile
//****************************************************************************
static bool saveXsiFile(
const FgString &fname,
const FffMultiObjectC &model,
const vector<FffMultiObjectC> *morphTargets,
const string &appName)
{
size_t numTargets=0;
if (morphTargets)
{
numTargets = morphTargets->size();
}
FgPath path(fname);
path.ext = "xsi";
FgOfstream ofs(path.str());
if (!ofs)
{
return false;
}
//
// Get object's bounding box (for camera and lighting info)
//
FgVect3F centroid(0.0f,0.0f,0.0f);
FgVect3F lowBound(0.0f,0.0f,0.0f);
FgVect3F hiBound(0.0f,0.0f,0.0f);
unsigned long numTotalVtx=0;
for (unsigned long yy=0; yy<model.numObjs(); ++yy)
{
// Get aliase names for all the lists.
const vector<FgVect3F> &vtxList = model.getPtList(yy);
// Calculate the info
for (unsigned long pt=0; pt<vtxList.size(); ++pt)
{
centroid += vtxList[pt];
++numTotalVtx;
if (yy==0 && pt==0)
{
lowBound = vtxList[pt];
hiBound = vtxList[pt];
}
else
{
if (lowBound[0] > vtxList[pt][0]) lowBound[0]=vtxList[pt][0];
if (lowBound[1] > vtxList[pt][1]) lowBound[1]=vtxList[pt][1];
if (lowBound[2] > vtxList[pt][2]) lowBound[2]=vtxList[pt][2];
if (hiBound[0] < vtxList[pt][0]) hiBound[0]=vtxList[pt][0];
if (hiBound[1] < vtxList[pt][1]) hiBound[1]=vtxList[pt][1];
if (hiBound[2] < vtxList[pt][2]) hiBound[2]=vtxList[pt][2];
}
}
}
centroid /= float(numTotalVtx);
FgVect3F camPos = centroid;
float zdiff = hiBound[2] - lowBound[2];
camPos[2] += zdiff*2.0f;
float camNearPlane = 0.1f;
float camFarPlane = zdiff*5.0f;
//
// Write (version 3.0) file header
//
ofs << "xsi 0300txt 0032\n\n" << flush;
//
// Output some standard info
//
ofs << "\n";
ofs << "SI_FileInfo\n";
ofs << "{\n";
ofs << " \"\",\n";
ofs << " \"" << appName << "\",\n";
ofs << "}\n";
ofs << "\n";
ofs << "SI_Scene scene1\n";
ofs << "{ \n";
ofs << " \"FRAMES\",\n";
ofs << " 1.000000,\n";
if (numTargets)
ofs << " " << numTargets+1 << ".000000,\n";
else
ofs << " 100.000000,\n";
ofs << " 30.0,\n";
ofs << "}\n";
ofs << "\n";
ofs << "SI_CoordinateSystem coord1\n";
ofs << "{\n";
ofs << " 1;\n";
ofs << " 0;\n";
ofs << " 1;\n";
ofs << " 0;\n";
ofs << " 2;\n";
ofs << " 5;\n";
ofs << "}\n";
ofs << "\n";
ofs << "SI_Angle\n";
ofs << "{\n";
ofs << " 0;\n";
ofs << "}\n";
ofs << "\n";
ofs << "SI_Camera camera1\n";
ofs << "{\n";
// Position
ofs << " " << floatToString(camPos[0]) << "; "
<< floatToString(camPos[1]) << "; "
<< floatToString(camPos[2]) << ";;\n";
// Point of interest (camera direction)
ofs << " " << floatToString(centroid[0]) << "; "
<< floatToString(centroid[1]) << "; "
<< floatToString(centroid[2]) << ";;\n";
// Roll
ofs << " 0.0;\n";
// Field of view
ofs << " 55.0;\n";
// Near plane units
ofs << " " << floatToString(camNearPlane) << ";\n";
// Far plane units
ofs << " " << floatToString(camFarPlane) << ";\n";
ofs << "}\n";
ofs << "\n" << flush;
ofs << "SI_Ambience\n";
ofs << "{\n";
ofs << " 0.2; 0.2; 0.2;;\n";
ofs << "}\n";
ofs << "\n" << flush;
ofs << "SI_Light light1\n";
ofs << "{\n";
// Type
ofs << " 0;\n";
// Colour of light
ofs << " 1.0; 1.0; 1.0;;\n";
// Position of light (above the camera)
ofs << " " << floatToString(camPos[0]) << "; "
<< floatToString(hiBound[1]) << "; "
<< floatToString(camPos[2]) << ";;\n";
ofs << "}\n";
ofs << "\n" << flush;
//
// Now output the material list.
//
ofs << "SI_MaterialLibrary MATLIB-scene1\n";
ofs << "{\n";
ofs << " " << model.numObjs() << ",\n";
unsigned long xx;
for (xx=0; xx<model.numObjs(); ++xx)
{
string objName = model.getModelName(xx);
ofs << "\n";
ofs << " SI_Material " << objName << "\n";
ofs << " {\n";
ofs << " 0.7, 0.7, 0.7, 1.0,\n"; // Diffuse colour
ofs << " 50.0,\n"; // Specular decay
ofs << " 1.0, 1.0, 1.0,\n"; // Specular colour
ofs << " 0.0, 0.0, 0.0,\n"; // Emissive colour
ofs << " 2,\n"; // Shading type (2=phong)
ofs << " 0.3, 0.3, 0.3,\n"; // Ambient colour
// Now output texture image info.
string txtFname = model.getTextureFilename(xx);
unsigned long imgWd=0, imgHgt=0;
if (txtFname != "" && txtFname.length() > 0)
{
// Get the image size by loading the image
FgImgRgbaUb tmpImg;
fgLoadImgAnyFormat(path.dir()+txtFname,tmpImg);
{
imgWd = tmpImg.width();
imgHgt = tmpImg.height();
}
}
if (imgWd != 0 && imgHgt != 0)
{
string objTexName = objName + string(".Material.")
+ objName + string(".texture.map");
ofs << " SI_Texture2D " << objTexName << "\n";
ofs << " {\n";
ofs << " \"" << txtFname << "\";\n";
ofs << " 3;\n"; // UV map (unwrapped)
ofs << " " << imgWd << ";" << imgHgt << ";\n";
ofs << " 0;" << imgWd-1 << ";0;" << imgHgt-1 << ";\n";
ofs << " 0;\n"; // No UV swap
ofs << " 1;1;\n";
ofs << " 0;0;\n";
ofs << " 1.0;1.0;\n"; // UV scale
ofs << " 0.0;0.0;\n"; // UV offset
ofs << " 1.0,0.0,0.0,0.0,\n"; // Project matrix
ofs << " 0.0,1.0,0.0,0.0,\n";
ofs << " 0.0,0.0,1.0,0.0,\n";
ofs << " 0.0,0.0,0.0,1.0;;\n";
ofs << " 3;\n"; // No mask blending
ofs << " 1.0;\n"; // Blending value
ofs << " 0.0;\n"; // Texture ambient
ofs << " 0.0;\n"; // Texture diffuse
ofs << " 0.0;\n"; // Texture specular
ofs << " 0.0;\n"; // Texture transparency
ofs << " 0.0;\n"; // Texture reflectivity
ofs << " 0.0;\n"; // Texture roughness
ofs << " }\n";
}
ofs << " }\n" << flush;
}
ofs << "}\n";
ofs << "\n" << flush;
//
// Now we output the models
//
for (xx=0; xx<model.numObjs(); ++xx)
{
string objName = model.getModelName(xx);
// Get aliase names for all the lists.
const vector<FgVect3F> &vtxList = model.getPtList(xx);
const vector<FgVect3UI> &triList = model.getTriList(xx);
const vector<FgVect4UI> &quadList = model.getQuadList(xx);
const vector<FgVect2F> &txtList = model.getTextCoord(xx);
const vector<FgVect3UI> &txtTriList = model.getTexTriList(xx);
const vector<FgVect4UI> &txtQuadList = model.getTexQuadList(xx);
bool perFacet = false;
bool perVertex = false;
if (vtxList.size() == txtList.size() &&
txtTriList.size() == 0 &&
txtQuadList.size() == 0)
perVertex = true;
else if (txtList.size() > 0 &&
txtTriList.size() == triList.size() &&
txtQuadList.size() == quadList.size())
perFacet = true;
// Create a new list for vertex normals
vector<FgVect3F> normList;
normList.resize(vtxList.size());
// Output the current model
ofs << "SI_Model MDL-" << objName << endl;
ofs << "{\n";
ofs << " SI_Transform SRT-" << objName << endl;
ofs << " {\n";
ofs << " 1.0, 1.0, 1.0, \n";
ofs << " 0.0, 0.0, 0.0, \n";
ofs << " 0.0, 0.0, 0.0, \n";
ofs << " }\n";
ofs << "\n";
ofs << " SI_GlobalMaterial\n";
ofs << " {\n";
ofs << " \"" << objName << "\",\n";
ofs << " \"BRANCH\",\n";
ofs << " }\n";
ofs << "\n";
ofs << " SI_Visibility\n";
ofs << " {\n";
ofs << " 1, \n";
ofs << " }\n";
ofs << "\n";
ofs << " SI_Mesh MSH-" << objName << endl;
ofs << " {\n";
// Coordinates (position, normal, and UV)
ofs << " SI_Shape SHP-" << objName << "-ORG\n";
ofs << " {\n";
if (perVertex || perFacet)
ofs << " 3,\n";
else
ofs << " 2,\n";
ofs << " \"ORDERED\",\n";
ofs << "\n";
ofs << " " << vtxList.size() << ",\n";
ofs << " \"POSITION\",\n";
unsigned long pt;
for (pt=0; pt<vtxList.size(); ++pt)
{
ofs << " "
<< floatToString(vtxList[pt][0]) << ", "
<< floatToString(vtxList[pt][1]) << ", "
<< floatToString(vtxList[pt][2]) << ",\n";
// Initialize the normal list to zero.
normList[pt] = FgVect3F(0);
}
ofs << "\n";
// Calculate the normal first
for (unsigned long tt=0; tt<triList.size(); ++tt)
{
FgVect3F norm = calTriNormals(vtxList,triList,tt);
normList[ triList[tt][0] ] += norm;
normList[ triList[tt][1] ] += norm;
normList[ triList[tt][2] ] += norm;
}
for (unsigned long qq=0; qq<quadList.size(); ++qq)
{
FgVect3F norm = calQuadNormals(vtxList,quadList,qq);
normList[ quadList[qq][0] ] += norm;
normList[ quadList[qq][1] ] += norm;
normList[ quadList[qq][2] ] += norm;
normList[ quadList[qq][3] ] += norm;
}
ofs << " " << normList.size() << ",\n";
ofs << " \"NORMAL\",\n";
for (pt=0; pt<normList.size(); ++pt)
{
float ln = normList[pt].length();
if (ln > 0.0f) normList[pt] /= ln;
ofs << " "
<< floatToString(normList[pt][0]) << ", "
<< floatToString(normList[pt][1]) << ", "
<< floatToString(normList[pt][2]) << ",\n";
}
if (perVertex || perFacet)
{
ofs << "\n";
ofs << " " << txtList.size() << ",\n";
ofs << " \"TEX_COORD_UV\",\n";
for (pt=0; pt<txtList.size(); ++pt)
{
ofs << " "
<< floatToString(txtList[pt][0]) << ", "
<< floatToString(txtList[pt][1]) << ", \n";
}
}
ofs << " }\n" << flush;
//
// Facets
//
if (triList.size())
{
ofs << "\n";
ofs << " SI_TriangleList " << objName << "\n";
ofs << " {\n";
ofs << " " << triList.size() << ",\n";
if (perVertex || perFacet)
ofs << " \"NORMAL|TEX_COORD_UV\",\n";
else
ofs << " \"NORMAL\",\n";
ofs << " \"" << objName << "\",\n";
// Triangle vertex id.
ofs << "\n";
unsigned long tri;
for (tri=0; tri<triList.size(); ++tri)
{
ofs << " "
<< triList[tri][0] << ", "
<< triList[tri][1] << ", "
<< triList[tri][2] << ", \n";
}
// Triangle's normal id.
ofs << "\n";
for (tri=0; tri<triList.size(); ++tri)
{
ofs << " "
<< triList[tri][0] << ", "
<< triList[tri][1] << ", "
<< triList[tri][2] << ", \n";
}
// Triangle's texture coordinate id.
if (perVertex)
{
ofs << "\n";
for (tri=0; tri<triList.size(); ++tri)
{
ofs << " "
<< triList[tri][0] << ", "
<< triList[tri][1] << ", "
<< triList[tri][2] << ", \n";
}
}
else if (perFacet)
{
ofs << "\n";
for (tri=0; tri<txtTriList.size(); ++tri)
{
ofs << " "
<< txtTriList[tri][0] << ", "
<< txtTriList[tri][1] << ", "
<< txtTriList[tri][2] << ", \n";
}
}
ofs << " }\n" << flush;
}
if (quadList.size())
{
ofs << "\n";
ofs << " SI_PolygonList " << objName << "\n";
ofs << " {\n";
ofs << " " << quadList.size() << ",\n";
if (perVertex || perFacet)
ofs << " \"NORMAL|TEX_COORD_UV\",\n";
else
ofs << " \"NORMAL\",\n";
ofs << " \"" << objName << "\",\n";
ofs << " " << 4*quadList.size() << ",\n";
unsigned long qu;
for (qu=0; qu<quadList.size(); ++qu)
{
ofs << " 4,\n";
}
// Quad's vertex id.
ofs << "\n";
for (qu=0; qu<quadList.size(); ++qu)
{
ofs << " "
<< quadList[qu][0] << ", "
<< quadList[qu][1] << ", "
<< quadList[qu][2] << ", "
<< quadList[qu][3] << ", \n";
}
// Quad's normal id.
ofs << "\n";
for (qu=0; qu<quadList.size(); ++qu)
{
ofs << " "
<< quadList[qu][0] << ", "
<< quadList[qu][1] << ", "
<< quadList[qu][2] << ", "
<< quadList[qu][3] << ", \n";
}
// Quad's texture coordinate id.
if (perVertex)
{
ofs << "\n";
for (qu=0; qu<quadList.size(); ++qu)
{
ofs << " "
<< quadList[qu][0] << ", "
<< quadList[qu][1] << ", "
<< quadList[qu][2] << ", "
<< quadList[qu][3] << ", \n";
}
}
else if (perFacet)
{
ofs << "\n";
for (qu=0; qu<txtQuadList.size(); ++qu)
{
ofs << " "
<< txtQuadList[qu][0] << ", "
<< txtQuadList[qu][1] << ", "
<< txtQuadList[qu][2] << ", "
<< txtQuadList[qu][3] << ", \n";
}
}
ofs << " }\n" << flush;
}
// Output morph targets as animations
if (morphTargets)
{
size_t numMorphs = morphTargets->size();
if (numMorphs)
{
ofs << "\n";
ofs << " SI_ShapeAnimation SHPANIM-" << objName << endl;
ofs << " {\n";
ofs << " \"LINEAR\",\n";
ofs << " " << numMorphs+1 << ",\n";
for (unsigned long mm=0; mm<numMorphs+1; ++mm)
{
const vector<FgVect3F> *mvtxList = &vtxList;
if (mm > 0)
mvtxList = &((*morphTargets)[mm-1].getPtList(xx));
normList.resize( mvtxList->size() );
ofs << "\n";
ofs << " SI_Shape SHP-" << objName
<< "-" << mm << "\n";
ofs << " {\n";
if (perVertex || perFacet)
ofs << " 3,\n";
else
ofs << " 2,\n";
ofs << " \"INDEXED\",\n";
// New vertex list.
ofs << "\n";
ofs << " " << mvtxList->size() << ",\n";
ofs << " \"POSITION\",\n";
for (pt=0; pt<mvtxList->size(); ++pt)
{
ofs << " " << pt << ", "
<< floatToString((*mvtxList)[pt][0]) << ", "
<< floatToString((*mvtxList)[pt][1]) << ", "
<< floatToString((*mvtxList)[pt][2]) << ",\n";
// Initialize the normal list to zero.
normList[pt] = FgVect3F(0.0f);
}
// New normal list.
size_t tt;
for (tt=0; tt<triList.size(); ++tt)
{
FgVect3F norm=calTriNormals(*mvtxList,triList,ulong(tt));
normList[ triList[tt][0] ] += norm;
normList[ triList[tt][1] ] += norm;
normList[ triList[tt][2] ] += norm;
}
size_t qq;
for (qq=0; qq<quadList.size(); ++qq)
{
FgVect3F norm=calQuadNormals(*mvtxList,quadList,ulong(qq));
normList[ quadList[qq][0] ] += norm;
normList[ quadList[qq][1] ] += norm;
normList[ quadList[qq][2] ] += norm;
normList[ quadList[qq][3] ] += norm;
}
ofs << "\n";
ofs << " " << normList.size() << ",\n";
ofs << " \"NORMAL\",\n";
for (pt=0; pt<normList.size(); ++pt)
{
float ln = normList[pt].length();
if (ln > 0.0f) normList[pt] /= ln;
ofs << " " << pt << ", "
<< floatToString(normList[pt][0]) << ", "
<< floatToString(normList[pt][1]) << ", "
<< floatToString(normList[pt][2]) << ",\n";
}
// Texture UV
if (perVertex || perFacet)
{
ofs << "\n";
ofs << " " << txtList.size() << ",\n";
ofs << " \"TEX_COORD_UV\",\n";
for (pt=0; pt<txtList.size(); ++pt)
{
ofs << " " << pt << ", "
<< floatToString(txtList[pt][0]) << ", "
<< floatToString(txtList[pt][1]) << ", \n";
}
}
ofs << " }\n" << flush;
}
ofs << "\n";
ofs << " SI_FCurve " << objName << "-SHPANIM-1\n";
ofs << " {\n";
ofs << " \"" << objName << "\",\n";
ofs << " \"SHPANIM-1\",\n";
ofs << " \"LINEAR\",\n";
ofs << " 1,1,\n";
ofs << " " << numMorphs+1 << ",\n";
size_t mm;
for (mm=0; mm<numMorphs+1; ++mm)
{
ofs << " " << mm+1 << ", " << mm << ".0,\n";
}
ofs << " }\n";
ofs << " }\n" << flush;
}
}
// End of SI_Mesh
ofs << " }\n";
// End of SI_Model
ofs << "}\n";
// End of current model
ofs << "\n" << flush;
}
//
// Done.
//
if (ofs.fail())
{
ofs.close();
return false;
}
else
{
ofs.close();
return true;
}
}
//****************************************************************************
// Local fffWriteTriObjectChunk_local
//****************************************************************************
static bool fffWriteTriObjectChunk_local(
FILE *fptr,
long &chunkSize,
const map<string,string> &textureInfo,
unsigned long objId,
const FffMultiObjectC &model)
{
long chunkStartPos = ftell(fptr);
unsigned short id = TRI_OBJECT;
chunkSize = 6;
if (!fffWriteChunkHeader_local(fptr,id,chunkSize))
return false;
unsigned short numVtx = (unsigned short) model.numPoints(objId);
if (numVtx != 0)
{
id = TRI_POINT_ARRAY;
long ptChunkSize = 6+sizeof(unsigned short)+numVtx*sizeof(float)*3;
if (!fffWriteChunkHeader_local(fptr,id,ptChunkSize))
return false;
if (fwrite(&numVtx,sizeof(unsigned short),1,fptr) != 1)
return false;
const vector<FgVect3F> &ptList = model.getPtList(objId);
for (unsigned short ii=0; ii<numVtx; ++ii)
{
if (fwrite(&ptList[ii][0],sizeof(float),1,fptr) != 1)
return false;
if (fwrite(&ptList[ii][1],sizeof(float),1,fptr) != 1)
return false;
if (fwrite(&ptList[ii][2],sizeof(float),1,fptr) != 1)
return false;
}
chunkSize += ptChunkSize;
}
// Check if it is per vertex texture
bool perVertexTexture =
(model.numPoints(objId) == model.numTxtCoord(objId) &&
model.numTxtTris(objId) == 0 &&
model.numTxtQuads(objId) == 0);
if (!perVertexTexture)
{
if (model.numTriangles(objId) == model.numTxtTris(objId) &&
model.numQuads(objId) == model.numTxtQuads(objId))
{
if (model.numPoints(objId) == model.numTxtCoord(objId))
{
bool identical = true;
// Check if the facet lists are identical
const vector<FgVect3UI> &triList =
model.getTriList(objId);
const vector<FgVect3UI> &txtTriList =
model.getTexTriList(objId);
for (unsigned long tri=0;
identical && tri<model.numTxtTris(objId); ++tri)
{
if (triList[tri] != txtTriList[tri])
identical = false;
}
const vector<FgVect4UI> &quadList =
model.getQuadList(objId);
const vector<FgVect4UI> &txtQuadList =
model.getTexQuadList(objId);
for (unsigned long quad=0;
identical && quad<model.numTxtQuads(objId); ++quad)
{
if (quadList[quad] != txtQuadList[quad])
identical = false;
}
perVertexTexture = identical;
if (!identical)
cout << "Skipping per-facet texture data\n" << flush;
}
else if (model.numTxtCoord(objId) != 0)
cout << "Skipping per-facet texture data\n" << flush;
}
}
if (perVertexTexture && model.numTxtCoord(objId) != 0)
{
id = TRI_TEX_COORD;
long ptChunkSize = 6+sizeof(unsigned short)+numVtx*sizeof(float)*2;
if (!fffWriteChunkHeader_local(fptr,id,ptChunkSize))
return false;
if (fwrite(&numVtx,sizeof(unsigned short),1,fptr) != 1)
return false;
const vector<FgVect2F> &ptList = model.getTextCoord(objId);
for (unsigned short ii=0; ii<numVtx; ++ii)
{
if (fwrite(&ptList[ii][0],sizeof(float),1,fptr) != 1)
return false;
if (fwrite(&ptList[ii][1],sizeof(float),1,fptr) != 1)
return false;
}
chunkSize += ptChunkSize;
}
// Now save facet info.
unsigned short numTris = (unsigned short) model.numTriangles(objId);
unsigned short numQuads = (unsigned short) model.numQuads(objId);
unsigned short totalTris = numTris + numQuads*2;
if (totalTris != 0)
{
long triChunkStartPos = ftell(fptr);
// Facet (tris) info.
unsigned short fourthNum = 7; // The first 3 bits turned on.
id = TRI_FACE_ARRAY;
long smoothGrpChunkSize = totalTris*sizeof(unsigned long)+6;
long triChunkSize = 6 + sizeof(unsigned short)
+ totalTris*sizeof(unsigned short)*4
+ smoothGrpChunkSize;
if (!fffWriteChunkHeader_local(fptr,id,triChunkSize))
return false;
if (fwrite(&totalTris,sizeof(unsigned short),1,fptr) != 1)
return false;
const vector<FgVect3UI> &triList = model.getTriList(objId);
for (unsigned short ii=0; ii<numTris; ++ii)
{
unsigned short idx1 = (unsigned short) triList[ii][0];
unsigned short idx2 = (unsigned short) triList[ii][1];
unsigned short idx3 = (unsigned short) triList[ii][2];
if (fwrite(&idx1,sizeof(unsigned short),1,fptr) != 1)
return false;
if (fwrite(&idx2,sizeof(unsigned short),1,fptr) != 1)
return false;
if (fwrite(&idx3,sizeof(unsigned short),1,fptr) != 1)
return false;
if (fwrite(&fourthNum,sizeof(unsigned short),1,fptr) != 1)
return false;
}
const vector<FgVect4UI> &quadList = model.getQuadList(objId);
ushort ii;
for (ii=0; ii<numQuads; ++ii)
{
for (int xx=0; xx<2; ++xx)
{
unsigned short idx1 = (unsigned short) quadList[ii][0];
unsigned short idx2 = (unsigned short) quadList[ii][xx+1];
unsigned short idx3 = (unsigned short) quadList[ii][xx+2];
if (fwrite(&idx1,sizeof(unsigned short),1,fptr) != 1)
return false;
if (fwrite(&idx2,sizeof(unsigned short),1,fptr) != 1)
return false;
if (fwrite(&idx3,sizeof(unsigned short),1,fptr) != 1)
return false;
if (fwrite(&fourthNum,sizeof(unsigned short),1,fptr) != 1)
return false;
}
}
// Define smooth group (this whole surface is one smooth group)
id = TRI_SMOOTH;
if (!fffWriteChunkHeader_local(fptr,id,smoothGrpChunkSize))
return false;
unsigned long smoothGrp = objId+1;
for (ii=0; ii<totalTris; ++ii)
{
if (fwrite(&smoothGrp,sizeof(unsigned long),1,fptr) != 1)
return false;
}
// Texture mapping info.
string textureFile = model.getTextureFilename(objId);
map<string,string>::const_iterator mapItr =
textureInfo.find(textureFile);
if (mapItr != textureInfo.end())
{
id = TRI_MAT_GROUP;
long triMatChunkSize = 6 + long(mapItr->second.length()) + 1
+ sizeof(unsigned short)*(totalTris+1);
if (!fffWriteChunkHeader_local(fptr,id,triMatChunkSize))
return false;
if (!fffWrite3dsString_local(fptr,mapItr->second))
return false;
if (fwrite(&totalTris,sizeof(unsigned short),1,fptr) != 1)
return false;
vector<unsigned short> fList;
fList.resize(totalTris);
for (ii=0; ii<totalTris; ++ii)
fList[ii] = ii;
if (fwrite(&fList[0],sizeof(unsigned short),totalTris,fptr)
!= totalTris)
return false;
triChunkSize += triMatChunkSize;
if (!fffUpdateChunkSizeInfo_local(fptr,triChunkSize,
triChunkStartPos))
return false;
}
chunkSize += triChunkSize;
}
// Correct the chunk size info for TRI_OBJECT chunk
if (!fffUpdateChunkSizeInfo_local(fptr,chunkSize,chunkStartPos))
return false;
return true;
}