int main(int argc, char *argv[])
{
QApplication a(argc, argv);
DrawingArea *area = new DrawingArea();
QPushButton *triangualteBut = new QPushButton();
triangualteBut->setText("Triangulate");
QVBoxLayout *lay = new QVBoxLayout();
lay->addWidget(area);
//lay->addWidget(triangualteBut);
QWidget window;
window.setLayout(lay);
window.show();
Triangulator *t = new Triangulator(area);
QObject::connect(triangualteBut,SIGNAL(clicked()),t,SLOT(triangulate()));
t->triangulate();
return a.exec();
}
void VRNature::addScrub(VRPolygonPtr area, bool addGround) {
float a = area->computeArea();
if (a == 0) return;
//VRTimer timer; timer.start();
//int t0 = timer.stop();
if (auto t = terrain.lock()) t->elevatePolygon(area, 0.18);
Vec3d median = area->getBoundingBox().center();
area->translate(-median);
for (auto p : area->getRandomPoints(1.0, -0.1, 0.7)) createRandomBush(median+p);
if (addGround) {
Triangulator tri;
tri.add(*area);
auto ground = tri.compute();
ground->translate(median);
ground->setPositionalTexCoords(1.0, 0, Vec3i(0,2,1));
ground->updateNormals();
ground->flipNormals();
if (!groundPatches) {
groundPatches = VRGeometry::create("groundPatches");
addChild( groundPatches );
VRTextureGenerator tg;
tg.addSimpleNoise( Vec3i(128,128,1), false, Color4f(0.85,0.8,0.75,1), Color4f(0.5,0.3,0,1) );
auto mat = VRMaterial::create("earth");
mat->setTexture(tg.compose());
groundPatches->setMaterial(mat);
}
groundPatches->merge(ground, ground->getPose());
groundPatches->setPositionalTexCoords(1.0, 0, Vec3i(0,2,1)); // TODO: fix issues in VRGeoData
}
}
TriMeshRef makeMesh( const vector<PolyLine2f> &polys )
{
Triangulator triangulator;
for( vector<PolyLine2f>::const_iterator polyIt = polys.begin(); polyIt != polys.end(); ++polyIt )
triangulator.addPolyLine( *polyIt );
return make_shared<TriMesh>( triangulator.calcMesh() );
}
Bool ApplinkImporter::parseObjFile(char* path)
{
char line[256];
vector<string> stringArray;
vector<string> subArray;
ifstream fsImportObj;
fsImportObj.open(path);
if(!fsImportObj.is_open()){GePrint("File " + String(path) + " not found!");return false;}
GePrint("Open file: " + String(path) + ".");
long faceIndex = 0;
int groupIndex = -1; // First group at 0
long pointIndex = 0;
long texCoordIndex = 0;
String matName;
long idxMat = -1;
StatusSetText("Parse file...");
while(!fsImportObj.eof())
{
fsImportObj.getline(line, 255);
//GePrint("row: " + String(buffer));
if(!strncmp("mtllib ", line, 7))
{
char file[256];
sscanf(line, "mtllib %s", file);
this->mtlFilePath = path;
this->mtlFilePath.ClearSuffix();
this->mtlFilePath.SetFile(file);
}
else if(!strncmp("usemtl ", line, 7))
{
String newMat;
stringArray.clear();
istringstream iss(line);
copy(istream_iterator<string>(iss), istream_iterator<string>(), back_inserter<vector<string> >(stringArray));
newMat = stringArray[1].c_str();
bool inMats = false;
for(unsigned int i = 0; i < this->matArray.size(); i++)
{
if(this->matArray[i].Name == newMat)
{
inMats = true;
idxMat = i;
break;
}
}
if(!inMats)
{
this->matArray.resize(this->matArray.size() + 1);
this->matArray[this->matArray.size() - 1].Name = newMat;
idxMat = (long)this->matArray.size() - 1;
}
}
else if(!strncmp("g ", line, 2))
{
groupIndex++;
faceIndex = 0;
sscanf(line, "g %s", &groups[groupIndex].groupName);
}
else if(!strncmp("v ", line, 2))
{
sscanf(line, "v %lf %lf %lf", &(verticies[pointIndex].x), &(verticies[pointIndex].y), &(verticies[pointIndex].z));
pointIndex++;
}
else if(!strncmp("vt", line, 2))
{
sscanf(line, "vt %lf %lf", &(this->uvw[texCoordIndex].x), &(this->uvw[texCoordIndex].y));
sscanf(line, "vt %lf %lf %lf", &(this->uvw[texCoordIndex].x), &(this->uvw[texCoordIndex].y), &(this->uvw[texCoordIndex].z));
this->uvw[texCoordIndex].y = 1 - this->uvw[texCoordIndex].y;
texCoordIndex++;
}
else if(!strncmp("f ", line, 2))
{
if(idxMat != -1)
{
groups[groupIndex].polyMatIdx[faceIndex] = idxMat;
}
//GePrint("size: " + LongToString(sizeof(line)));
stringArray.clear();
istringstream iss(line);
copy(istream_iterator<string>(iss), istream_iterator<string>(), back_inserter<vector<string> >(stringArray));
//GePrint("size: " + LongToString(stringArray.size()));
subArray.clear();
int numFaces = (int)(stringArray.size() -1);
if(numFaces == 3 || numFaces == 4)
{
for(UInt32 i = 1; i <= numFaces; i++)
{
subArray = this->Split(stringArray[i], '/');
for(UInt32 j=0; j < subArray.size(); j++)
{
string vIdx = subArray[j];
if(j==0)//position
{
groups[groupIndex].faces[faceIndex].vp[i-1] = atol(vIdx.c_str()) -1;
}
else if(j ==1 && vIdx != "")//tex coord
{
groups[groupIndex].faces[faceIndex].vt[i-1] = atol(vIdx.c_str()) - 1;
}
//Normals is not persent in this plugin.
}
}
if(numFaces == 3)// this triangle, non quad.
{
groups[groupIndex].faces[faceIndex].vp[3] = atol(subArray[0].c_str()) - 1;
if(subArray.size() > 1 && subArray[1] != "")
{
groups[groupIndex].faces[faceIndex].vt[3] = atol(subArray[1].c_str()) - 1;
}
}
faceIndex++;
}
else// N-Gons
{
Triangulator* t = createTriangulator();
vector<UInt32> vpIdxs;
vector<UInt32> vtIdxs;
for(UInt32 j=1; j <= numFaces; j++)
{
subArray = this->Split(stringArray[j], '/');
UInt32 idx = atol(subArray[0].c_str()) -1;
vpIdxs.push_back(idx);
if(subArray[1] != "")
{
vtIdxs.push_back(atol(subArray[1].c_str()) -1);
}
t->addPoint(verticies[idx].x, verticies[idx].y, verticies[idx].z);
}
unsigned int tcount;
unsigned int *indices = t->triangulate(tcount);
for(UInt32 f = 0; f < tcount; f++)
{
for(UInt32 v=0; v < 4; v++)
{
UInt32 vv = 2-v;
if(v == 3) vv = 0;
groups[groupIndex].faces[faceIndex].vp[v] = vpIdxs[indices[f*3+vv]];//vp
if(vpIdxs.size() > 0)//vt
{
groups[groupIndex].faces[faceIndex].vt[v] = vtIdxs[indices[f*3+vv]];
}
}
faceIndex++;
//GePrint("Face3: " + LongToString(groups[groupIndex].faces[faceIndex].vp[0]) + ", " + LongToString(groups[groupIndex].faces[faceIndex].vp[1]) + ", " + LongToString(groups[groupIndex].faces[faceIndex].vp[2]));
}
releaseTriangulator(t);
}
}
}
fsImportObj.close();
return true;
}
BaseObject *Objectify::GetVirtualObjects(BaseObject *op, HierarchyHelp *hh)
{
BaseDocument *doc = op->GetDocument();
BaseContainer *data = op->GetDataInstance();
BaseObject* obj = (BaseObject*)data->GetLink(CTT_OBJECT_LINK,doc,Obase);
LONG crntFrame = doc->GetTime().GetFrame(doc->GetFps());
if (!obj) return NULL;
if (obj->GetType() != Ospline){
return NULL;
}
// start new list
op->NewDependenceList();
// check cache for validity and check master object for changes
Bool dirty = op->CheckCache(hh) || op->IsDirty(DIRTYFLAGS_DATA);
// if child list has been modified
if (!dirty) dirty = !op->CompareDependenceList();
// mark child objects as processed
op->TouchDependenceList();
dirty = dirty || (prevFrame != crntFrame);
prevFrame = crntFrame;
// if no change has been detected, return original cache
if (!dirty) return op->GetCache(hh);
SplineObject* spline = (SplineObject*) obj;
AutoAlloc<SplineHelp> splineHelp;
StatusSetText("Collecting points");
float positioAlongSpline = data->GetReal(POSITION_ALONG_SPLINE,0.5);
positioAlongSpline /= 10000.0f;
positioAlongSpline = positioAlongSpline > 1.0 ? 1.0: positioAlongSpline;
positioAlongSpline = positioAlongSpline < 0.0 ? 0.0: positioAlongSpline;
cout<<positioAlongSpline<<endl;
vector<vector<float> > points;
for (LONG i = 0; i < spline->GetSegmentCount(); i++){
Vector p = spline->GetSplinePoint(positioAlongSpline, i);
vector<float> point;
point.push_back(p.x);
point.push_back(p.y);
point.push_back(p.z);
points.push_back(point);
}
StatusSetText("Collected "+LongToString(points.size())+" points");
ksearchNeighbors= data->GetLong(TRIANGULATION_MAX_NEIGHBORS, 100);
gp3SearchRadius = data->GetReal(TRIANGULATION_MAX_SEARCH_RADIUS,30.);
gp3MaxNeighbors = data->GetLong(KSEARCH_NEIGHBORS, 20);
gp3Mu = data->GetReal(KSEARCH_MU, 0.5);
vector<vector<float> > surfacePoints;
vector<vector<int> > triIndxs;
StatusSetBar(0);
StatusSetText("Triangulating");
bool useMls = data->GetBool(USE_MLS, false);
tri.computeSurface(points, surfacePoints, triIndxs, ksearchNeighbors, gp3SearchRadius, gp3MaxNeighbors, gp3Mu, useMls);
StatusSetBar(100);
StatusSetText("Got "+LongToString(triIndxs.size())+" triangles");
if (triIndxs.size() == 0){
return NULL;
}
PolygonObject* myPoly = PolygonObject::Alloc(surfacePoints.size(),triIndxs.size());
Vector* ppoints = myPoly->GetPointW();
vector<float> sp;
for (int t = 0; t < surfacePoints.size()-2; t += 3) {
sp = surfacePoints[t];
ppoints[t+0] = Vector(sp[0],sp[1],sp[2]);
sp = surfacePoints[t+1];
ppoints[t+1] = Vector(sp[0],sp[1],sp[2]);
sp = surfacePoints[t+2];
ppoints[t+2] = Vector(sp[0],sp[1],sp[2]);
}
for (int t = 0; t < triIndxs.size(); t ++) {
myPoly->GetPolygonW()[t] = CPolygon(triIndxs[t][0], triIndxs[t][1], triIndxs[t][2], triIndxs[t][2]);
}
StatusClear();
myPoly->Message(MSG_UPDATE);
return ToPoly(myPoly);
BaseThread* bt=hh->GetThread();
BaseObject* main = BaseObject::Alloc(Onull);
SplineObject* emptySpline = SplineObject::Alloc(0, SPLINETYPE_LINEAR);
ModelingCommandData mcd;
mcd.doc = doc;
mcd.op = emptySpline;
if(!SendModelingCommand(MCOMMAND_JOIN, mcd)){
return NULL;
}
Error:
return NULL;
}
int main( int argc, const char* argv[] )
{
double max_area;
double min_angle;
po::options_description po_desc( "Allowed options" );
po_desc.add_options()
( "help", "produce help message" )
( "max-size,s", po::value<double>( &max_area )->default_value( 0.01 ), "set the maximum triangle area for the refinement algorithm" )
( "min-angle,a", po::value<double>( &min_angle )->default_value( 21 ), "set the minimum angle for the refinement algorithm" )
( "input-file", po::value<std::string>(), "input file describing the polygonal boundary (in Well-Known Text format)");
po::positional_options_description po_pdesc;
po_pdesc.add("input-file", -1);
po::variables_map po_vm;
po::store( po::command_line_parser( argc, argv ).options( po_desc ).positional( po_pdesc ).run(), po_vm );
po::notify( po_vm );
if ( po_vm.count( "help" ) )
{
std::cout << po_desc << std::endl;
return EXIT_SUCCESS;
}
if ( ! po_vm.count( "input-file" ) )
{
std::cout << "Name of the input file not specified\n";
std::cout << po_desc << std::endl;
return EXIT_FAILURE;
}
std::cout << "Parameters used:" << std::endl
<< " maximum triangle area = " << max_area << std::endl
<< " minimum angle = " << min_angle << std::endl;
try
{
Polygon boundary;
read_polygon( po_vm["input-file"].as< std::string >(), boundary );
Mesh mesh;
Triangulator<Mesh> triangulator;
triangulator.triangulate( boundary, mesh );
io::write_eps( "mesh_1.eps", mesh );
mesh.make_cdt();
io::write_eps( "mesh_2.eps", mesh );
Mesher mesher;
mesher.refine( mesh, max_area, min_angle );
io::write_eps( "mesh_3.eps", mesh );
io::write_stl( "mesh_3.stl", mesh );
io::write_off( "mesh_3.off", mesh );
io::write_obj( "mesh_3.obj", mesh );
io::write_ply( "mesh_3.ply", mesh );
Relax relax;
relax.relax( mesh );
io::write_eps( "mesh_4.eps", mesh );
// smoother smooth;
// smooth.smooth(m, 1);
// Postscript_stream ps5("mesh_5.eps", m.bounding_box());
// ps5 << m;
// // code does not pass a debug assert:
// meshgen.refine(0.0001000, 25);
// Postscript_stream ps6("mesh_6.eps", m.bounding_box());
// ps6 << m;
// // smooth.smooth(m, 5);
// // Postscript_stream ps7("mesh_7.eps", m.bounding_box());
// // ps7 << m;
std::cout << "Final mesh:" << std::endl
<< " # nodes: " << mesh.number_of_nodes() << std::endl
<< " # edges: " << mesh.number_of_edges() << std::endl
<< " # faces: " << mesh.number_of_faces() << std::endl;
}
catch ( boost::exception& e )
{
std::cerr << boost::diagnostic_information( e );
}
return EXIT_SUCCESS;
}
void VRNature::addGrassPatch(VRPolygonPtr Area, bool updateLODs, bool addGround) { // TODO: needs optimizations!
//VRTimer timer; timer.start();
//int t0 = timer.stop();
//cout << "VRNature::addGrassPatch " << t0 << endl;
int i=0;
auto ground = VRGeometry::create("ground");
float a = Area->computeArea();
if (a == 0) return;
//cout << "VRNature::addGrassPatch " << a << endl;
map<VRLodLeafPtr, bool> toUpdate;
for (auto area : Area->gridSplit(10.0)) {
if (area->isCCW()) area->reverseOrder();
//cout << " sub Area " << i << " " << timer.stop() - t0 << endl;
if (auto t = terrain.lock()) t->elevatePolygon(area, 0.18);
Vec3d median = area->getBoundingBox().center();
area->translate(-median);
//cout << " A1 " << timer.stop() - t0 << endl;
auto grass = VRGrassPatch::create();
grass->addAttachment("grass", 0);
grass->setArea(area);
//cout << " A2 " << timer.stop() - t0 << endl;
grassPatchRefs[grass.get()] = grass;
auto leaf = lodTree->addObject(grass, median, 0); // pose contains the world position!
grass->setWorldPosition(median);
toUpdate[leaf] = true;
//cout << " A3 " << timer.stop() - t0 << endl;
//cout << " VRNature::addGrassPatch " << median << " " << area->computeArea() << endl;
if (addGround) {
Triangulator tri;
tri.add(*area);
auto geo = tri.compute();
geo->translate(median);
ground->merge(geo);
}
i++;
}
if (updateLODs) for (auto l : toUpdate) computeLODs(l.first);
if (addGround) {
VRTextureGenerator tg;
tg.addSimpleNoise( Vec3i(128,128,1), true, Color4f(0.85,0.8,0.75,1), Color4f(0.5,0.3,0,1) );
auto mat = VRMaterial::create("earth");
mat->setTexture(tg.compose());
mat->clearTransparency();
ground->setPositionalTexCoords(1.0, 0, Vec3i(0,2,1));
//addChild(ground);
if (!grassGroundPatches) {
grassGroundPatches = VRGeometry::create("grassGroundPatches");
addChild( grassGroundPatches );
grassGroundPatches->setMaterial(mat);
}
grassGroundPatches->merge(ground);
}
}
SgMesh* MeshGenerator::generateExtrusion(const Extrusion& extrusion)
{
const int numSpines = extrusion.spine.size();
const int numCrosses = extrusion.crossSection.size();
bool isClosed = false;
if(extrusion.spine[0][0] == extrusion.spine[numSpines - 1][0] &&
extrusion.spine[0][1] == extrusion.spine[numSpines - 1][1] &&
extrusion.spine[0][2] == extrusion.spine[numSpines - 1][2] ){
isClosed = true;
}
bool isCrossSectionClosed = (extrusion.crossSection[0] == extrusion.crossSection[numCrosses - 1]);
SgMesh* mesh = new SgMesh;
SgVertexArray& vertices = *mesh->setVertices(new SgVertexArray());
vertices.reserve(numSpines * numCrosses);
Vector3 preZaxis(Vector3::Zero());
int definedZaxis = -1;
vector<Vector3> Yaxisarray;
vector<Vector3> Zaxisarray;
if(numSpines > 2){
for(int i=0; i < numSpines; ++i){
Vector3 Yaxis, Zaxis;
if(i == 0){
if(isClosed){
const Vector3& spine1 = extrusion.spine[numSpines - 2];
const Vector3& spine2 = extrusion.spine[0];
const Vector3& spine3 = extrusion.spine[1];
Yaxis = spine3 - spine1;
Zaxis = (spine3 - spine2).cross(spine1 - spine2);
} else {
const Vector3& spine1 = extrusion.spine[0];
const Vector3& spine2 = extrusion.spine[1];
const Vector3& spine3 = extrusion.spine[2];
Yaxis = spine2 - spine1;
Zaxis = (spine3 - spine2).cross(spine1 - spine2);
}
} else if(i == numSpines - 1){
if(isClosed){
const Vector3& spine1 = extrusion.spine[numSpines - 2];
const Vector3& spine2 = extrusion.spine[0];
const Vector3& spine3 = extrusion.spine[1];
Yaxis = spine3 - spine1;
Zaxis = (spine3 - spine2).cross(spine1 - spine2);
} else {
const Vector3& spine1 = extrusion.spine[numSpines - 3];
const Vector3& spine2 = extrusion.spine[numSpines - 2];
const Vector3& spine3 = extrusion.spine[numSpines - 1];
Yaxis = spine3 - spine2;
Zaxis = (spine3 - spine2).cross(spine1 - spine2);
}
} else {
const Vector3& spine1 = extrusion.spine[i - 1];
const Vector3& spine2 = extrusion.spine[i];
const Vector3& spine3 = extrusion.spine[i + 1];
Yaxis = spine3 - spine1;
Zaxis = (spine3-spine2).cross(spine1-spine2);
}
if(!Zaxis.norm()){
if(definedZaxis != -1)
Zaxis = preZaxis;
} else {
if(definedZaxis == -1){
definedZaxis = i;
}
preZaxis = Zaxis;
}
Yaxisarray.push_back(Yaxis);
Zaxisarray.push_back(Zaxis);
}
} else {
const Vector3 Yaxis(extrusion.spine[1] - extrusion.spine[0]);
Yaxisarray.push_back(Yaxis);
Yaxisarray.push_back(Yaxis);
}
const int numScales = extrusion.scale.size();
const int numOrientations = extrusion.orientation.size();
Vector3 scale(1.0, 0.0, 1.0);
AngleAxis orientation(0.0, Vector3::UnitZ());
for(int i=0; i < numSpines; ++i){
Matrix3 Scp;
Vector3 y = Yaxisarray[i].normalized();
if(definedZaxis == -1){
AngleAxis R(acos(y[1]), Vector3(y[2], 0.0, -y[0]));
Scp = R.toRotationMatrix();
} else {
if(i < definedZaxis){
Zaxisarray[i] = Zaxisarray[definedZaxis];
}
if(i && (Zaxisarray[i].dot(Zaxisarray[i - 1]) < 0.0)){
Zaxisarray[i] *= -1.0;
}
Vector3 z = Zaxisarray[i].normalized();
Vector3 x = y.cross(z);
Scp << x, y, z;
}
const Vector3& spine = extrusion.spine[i];
if(numScales == 1){
scale << extrusion.scale[0][0], 0.0, extrusion.scale[0][1];
} else if(numScales > 1){
scale << extrusion.scale[i][0], 0.0, extrusion.scale[i][1];
}
if(numOrientations == 1){
orientation = extrusion.orientation[0];
} else if(numOrientations > 1){
orientation = extrusion.orientation[i];
}
for(int j=0; j < numCrosses; ++j){
const Vector3 crossSection(extrusion.crossSection[j][0], 0.0, extrusion.crossSection[j][1]);
const Vector3 v1(crossSection[0] * scale[0], 0.0, crossSection[2] * scale[2]);
const Vector3 v = Scp * orientation.toRotationMatrix() * v1 + spine;
vertices.push_back(v.cast<float>());
}
}
for(int i=0; i < numSpines - 1 ; ++i){
const int upper = i * numCrosses;
const int lower = (i + 1) * numCrosses;
for(int j=0; j < numCrosses - 1; ++j) {
mesh->addTriangle(j + upper, j + lower, (j + 1) + lower);
mesh->addTriangle(j + upper, (j + 1) + lower, j + 1 + upper);
}
}
int j = 0;
if(isCrossSectionClosed){
j = 1;
}
Triangulator<SgVertexArray> triangulator;
vector<int> polygon;
if(extrusion.beginCap && !isClosed){
triangulator.setVertices(vertices);
polygon.clear();
for(int i=0; i < numCrosses - j; ++i){
polygon.push_back(i);
}
triangulator.apply(polygon);
const vector<int>& triangles = triangulator.triangles();
for(size_t i=0; i < triangles.size(); i += 3){
mesh->addTriangle(polygon[triangles[i]], polygon[triangles[i+1]], polygon[triangles[i+2]]);
}
}
if(extrusion.endCap && !isClosed){
triangulator.setVertices(vertices);
polygon.clear();
for(int i=0; i < numCrosses - j; ++i){
polygon.push_back(numCrosses * (numSpines - 1) + i);
}
triangulator.apply(polygon);
const vector<int>& triangles = triangulator.triangles();
for(size_t i=0; i < triangles.size(); i +=3){
mesh->addTriangle(polygon[triangles[i]], polygon[triangles[i+2]], polygon[triangles[i+1]]);
}
}
mesh->updateBoundingBox();
generateNormals(mesh, extrusion.creaseAngle);
return mesh;
}
//-----------------------------------------------------------------------
void Extruder::_extrudeCapImpl(TriangleBuffer& buffer) const
{
std::vector<int> indexBuffer;
PointList pointList;
buffer.rebaseOffset();
Triangulator t;
if (mShapeToExtrude)
t.setShapeToTriangulate(mShapeToExtrude);
else
t.setMultiShapeToTriangulate(mMultiShapeToExtrude);
t.triangulate(indexBuffer, pointList);
buffer.estimateIndexCount(2*indexBuffer.size());
buffer.estimateVertexCount(2*pointList.size());
//begin cap
buffer.rebaseOffset();
Quaternion qBegin = Utils::_computeQuaternion(mExtrusionPath->getDirectionAfter(0));
if (mRotationTrack)
{
Real angle = mRotationTrack->getFirstValue();
qBegin = qBegin*Quaternion((Radian)angle, Vector3::UNIT_Z);
}
Real scaleBegin=1.;
if (mScaleTrack)
scaleBegin = mScaleTrack->getFirstValue();
for (size_t j =0;j<pointList.size();j++)
{
Vector2 vp2 = pointList[j];
Vector3 vp(vp2.x, vp2.y, 0);
Vector3 normal = -Vector3::UNIT_Z;
Vector3 newPoint = mExtrusionPath->getPoint(0)+qBegin*(scaleBegin*vp);
addPoint(buffer, newPoint,
qBegin*normal,
vp2);
}
for (size_t i=0;i<indexBuffer.size()/3;i++)
{
buffer.index(indexBuffer[i*3]);
buffer.index(indexBuffer[i*3+2]);
buffer.index(indexBuffer[i*3+1]);
}
// end cap
buffer.rebaseOffset();
Quaternion qEnd = Utils::_computeQuaternion(mExtrusionPath->getDirectionBefore(mExtrusionPath->getSegCount()));
if (mRotationTrack)
{
Real angle = mRotationTrack->getLastValue();
qEnd = qEnd*Quaternion((Radian)angle, Vector3::UNIT_Z);
}
Real scaleEnd=1.;
if (mScaleTrack)
scaleEnd = mScaleTrack->getLastValue();
for (size_t j =0;j<pointList.size();j++)
{
Vector2 vp2 = pointList[j];
Vector3 vp(vp2.x, vp2.y, 0);
Vector3 normal = Vector3::UNIT_Z;
Vector3 newPoint = mExtrusionPath->getPoint(mExtrusionPath->getSegCount())+qEnd*(scaleEnd*vp);
addPoint(buffer, newPoint,
qEnd*normal,
vp2);
}
for (size_t i=0;i<indexBuffer.size()/3;i++)
{
buffer.index(indexBuffer[i*3]);
buffer.index(indexBuffer[i*3+1]);
buffer.index(indexBuffer[i*3+2]);
}
}
//-----------------------------------------------------------------------
void Lathe::_latheCapImpl(TriangleBuffer& buffer) const
{
std::vector<int> indexBuffer;
PointList pointList;
buffer.rebaseOffset();
Triangulator t;
Shape shapeCopy;
MultiShape multishapeCopy;
if (mShapeToExtrude)
{
shapeCopy = *mShapeToExtrude;
shapeCopy.close();
t.setShapeToTriangulate(&shapeCopy);
}
else
{
multishapeCopy = *mMultiShapeToExtrude;
multishapeCopy.close();
t.setMultiShapeToTriangulate(mMultiShapeToExtrude);
}
t.triangulate(indexBuffer, pointList);
buffer.estimateIndexCount(2*indexBuffer.size());
buffer.estimateVertexCount(2*pointList.size());
//begin cap
buffer.rebaseOffset();
Quaternion q;
q.FromAngleAxis(mAngleBegin, Vector3::UNIT_Y);
for (size_t j =0;j<pointList.size();j++)
{
Vector2 vp2 = pointList[j];
Vector3 vp(vp2.x, vp2.y, 0);
Vector3 normal = Vector3::UNIT_Z;
addPoint(buffer, q*vp,
q*normal,
vp2);
}
for (size_t i=0;i<indexBuffer.size()/3;i++)
{
buffer.index(indexBuffer[i*3]);
buffer.index(indexBuffer[i*3+1]);
buffer.index(indexBuffer[i*3+2]);
}
//end cap
buffer.rebaseOffset();
q.FromAngleAxis(mAngleEnd, Vector3::UNIT_Y);
for (size_t j =0;j<pointList.size();j++)
{
Vector2 vp2 = pointList[j];
Vector3 vp(vp2.x, vp2.y, 0);
Vector3 normal = -Vector3::UNIT_Z;
addPoint(buffer, q*vp,
q*normal,
vp2);
}
for (size_t i=0;i<indexBuffer.size()/3;i++)
{
buffer.index(indexBuffer[i*3]);
buffer.index(indexBuffer[i*3+2]);
buffer.index(indexBuffer[i*3+1]);
}
}