SBasis compose(Linear2d const &a, D2<SBasis> const &p) {
D2<SBasis> omp(-p[X] + 1, -p[Y] + 1);
return multiply(omp[0], omp[1])*a[0] +
multiply(p[0], omp[1])*a[1] +
multiply(omp[0], p[1])*a[2] +
multiply(p[0], p[1])*a[3];
}
bool project_mesh::generic_run( int target_dimension )
{
if (viennagrid::result_of::geometric_dimension<OutputMeshT>::value != target_dimension)
return false;
typedef viennagrid::segmented_mesh<InputMeshT, InputSegmentationT> InputSegmentedMeshType;
typename viennamesh::result_of::const_parameter_handle<InputSegmentedMeshType>::type imp = input_mesh.get<InputSegmentedMeshType>();
if (imp)
{
typedef viennagrid::segmented_mesh<OutputMeshT, OutputSegmentationT> OutputSegmentedMeshType;
output_parameter_proxy<OutputSegmentedMeshType> omp(output_mesh);
project_mesh_impl( imp().mesh, imp().segmentation, omp().mesh, omp().segmentation );
return true;
}
return false;
}
void CSimPetriDoc::CreateOMPDoc(CString pathToFile)
{
ompMode = TRUE;
delete stepper;
//Créer le squelette
const std::wstring pathName(pathToFile);
const wchar_t *separator = _T(";");
omp::Reader dataReader(pathName, separator);
omp::PetriOMP omp(dataReader, skeleton);
//Créer le stepper
stepper = new pm::TrackableStepper(&skeleton, &timer);
//Ajouter les places
double radiusPlaces = ((double)(3)/4) * min(size.cx/2, size.cy/2);
pm::Places places = skeleton.getPlaces();
unsigned index = 0;
for(auto it=places.begin(); it!=places.end(); ++it)
{
int x(size.cx/2 + radiusPlaces*std::cos(((double)(index)/places.size())*2*3.14));
int y(-size.cy/2 + radiusPlaces*std::sin(((double)(index)/places.size())*2*3.14));
shapesMap.insert(std::make_pair(*it, AddPlace(Point(x,y), *it)));
++index;
}
//Ajouter les transitions
double radiusTrans = ((double)(1)/2) * min(size.cx/2, size.cy/2);
pm::Transitions transitions = skeleton.getTransitions();
index = 0;
for(auto it=transitions.begin(); it!=transitions.end(); ++it)
{
Point source = shapesMap.at((*it)->getInputArcs().front()->getSourceNode())->GetPosition();
Point end = shapesMap.at((*it)->getOutputArcs().front()->getEndNode())->GetPosition();
//int x(size.cx/2 + radiusTrans*std::cos(((double)(index)/transitions.size())*2*3.14));
//int y(-size.cy/2 + radiusTrans*std::sin(((double)(index)/transitions.size())*2*3.14));
shapesMap.insert(std::make_pair(*it, AddTransition(Geometry::MiddlePoint(source, end), *it)));
++index;
}
//Ajouter les arcs
pm::Arcs arcs = skeleton.getArcs();
std::vector<Point> nullVector;
for(auto it=arcs.begin(); it!=arcs.end(); ++it)
AddArc(shapesMap.at((*it)->getSourceNode()),
shapesMap.at((*it)->getEndNode()),
nullVector,
*it);
}
bool make_mesh::run_impl()
{
output_parameter_proxy<netgen::mesh> omp(output_mesh);
StdCaptureHandle capture_handle;
if (omp != input_mesh)
omp() = input_mesh();
::netgen::MeshingParameters mesh_parameters;
if (cell_size.valid())
{
::netgen::Point3d pmin;
::netgen::Point3d pmax;
omp()().GetBox(pmin, pmax);
double bb_volume = std::abs( (pmax.X() - pmin.X()) * (pmax.Y() - pmin.Y()) * (pmax.Z() - pmin.Z()) );
double cell_volume = cell_size()*cell_size()*cell_size();
double max_cell_count = 100000000;
if ( cell_volume * max_cell_count < bb_volume )
{
warning(1) << "Cell size is too small and might result in too much elements" << std::endl;
warning(1) << "Cell size = " << cell_size() << std::endl;
warning(1) << "Mesh max cell count = " << max_cell_count << std::endl;
warning(1) << "Mesh bounding box = " << pmin << "," << pmax << std::endl;
warning(1) << "Mesh bounding box volume = " << bb_volume << std::endl;
warning(1) << "Mesh max cell volume = " << cell_volume * max_cell_count << std::endl;
}
mesh_parameters.maxh = cell_size();
}
try
{
omp()().CalcLocalH(mesh_parameters.grading);
MeshVolume (mesh_parameters, omp()());
RemoveIllegalElements (omp()());
OptimizeVolume (mesh_parameters, omp()());
}
catch (::netgen::NgException const & ex)
{
error(1) << "Netgen Error: " << ex.What() << std::endl;
return false;
}
return true;
}
bool occ_make_mesh::run_impl()
{
io::FileType ft;
if (filetype.valid())
ft = io::from_string( filetype() );
else
ft = io::from_filename( filename() );
try
{
output_parameter_proxy<netgen::mesh> omp(output_mesh);
::netgen::OCCGeometry * geometry;
if (ft == io::OCC_STEP)
geometry = ::netgen::LoadOCC_STEP( filename().c_str() );
else if (ft == io::OCC_IGES)
geometry = ::netgen::LoadOCC_IGES( filename().c_str() );
else
{
error(1) << "File type \"" << io::to_string(ft) << "\" is not supported" << std::endl;
return false;
}
// http://sourceforge.net/p/netgen-mesher/discussion/905307/thread/7176bc7d/
TopTools_IndexedMapOfShape FMap;
FMap.Assign( geometry->fmap );
if (!FMap.Extent())
{
std::cout << "Error retrieving Face map... (OpenCascade error)" << endl;
return false;
}
::netgen::MeshingParameters mp;
mp.elementorder = 0;
mp.quad = 0;
mp.inverttets = 0;
mp.inverttrigs = 0;
if (cell_size.valid())
{
mp.uselocalh = 1;
mp.maxh = cell_size();
}
mp.curvaturesafety = curvature_safety_factor();
mp.segmentsperedge = segments_per_edge();
mp.grading = grading();
int perfstepsend = 6;
omp()().geomtype = ::netgen::Mesh::GEOM_OCC;
::netgen::occparam.resthcloseedgeenable = 0; //mp.closeedgeenable;
::netgen::occparam.resthcloseedgefac = 1.0; //mp.closeedgefact;
::netgen::mparam = mp;
omp()().DeleteMesh();
::netgen::OCCSetLocalMeshSize( *geometry, omp()() );
::netgen::OCCFindEdges(*geometry, omp()());
::netgen::OCCMeshSurface(*geometry, omp()(), perfstepsend);
omp()().CalcSurfacesOfNode();
::netgen::MeshVolume(mp, omp()());
::netgen::RemoveIllegalElements( omp()() );
::netgen::MeshQuality3d( omp()() );
::netgen::OptimizeVolume(mp, omp()() );
}
catch (::netgen::NgException const & ex)
{
error(1) << "Netgen Error: " << ex.What() << std::endl;
return false;
}
return true;
}
bool adapt_hull::run_impl()
{
typedef viennagrid::triangular_3d_mesh MeshType;
typedef viennagrid::triangular_3d_segmentation SegmentationType;
typedef viennagrid::triangular_hull_3d_segmentation OrientedSegmentationType;
typedef viennagrid::segmented_mesh<MeshType, SegmentationType> SegmentedMeshType;
typedef viennagrid::segmented_mesh<MeshType, OrientedSegmentationType> OrientedSegmentedMeshType;
{
viennamesh::result_of::const_parameter_handle<OrientedSegmentedMeshType>::type imp = input_mesh.get<OrientedSegmentedMeshType>();
if (imp)
{
output_parameter_proxy<OrientedSegmentedMeshType> omp(output_mesh);
::vgmodeler::hull_adaptor adaptor;
if (cell_size.valid())
adaptor.maxsize() = cell_size();
adaptor.process( imp().mesh, imp().segmentation, omp().mesh, omp().segmentation );
return true;
}
}
// {
// viennamesh::result_of::const_parameter_handle<SegmentedMeshType>::type imp = input_mesh.get<SegmentedMeshType>();
// if (imp)
// {
// output_parameter_proxy<OrientedSegmentedMeshType> omp(output_mesh);
//
// viennamesh::algorithm_handle segmenting_algo( new hull_segmenting() );
// segmenting_algo->set_input( "mesh", imp );
// segmenting_algo->run();
//
// viennamesh::result_of::const_parameter_handle<OrientedSegmentedMeshType>::type tmp =
// dynamic_handle_cast<OrientedSegmentedMeshType>(segmenting_algo->get_output("mesh"));
//
// ::vgmodeler::hull_adaptor adaptor;
// if (cell_size.valid())
// adaptor.maxsize() = cell_size();
// adaptor.process( tmp().mesh, tmp().segmentation, omp().mesh, omp().segmentation );
//
// return true;
// }
// }
//
// {
// viennamesh::result_of::const_parameter_handle<MeshType>::type imp = input_mesh.get<MeshType>();
// if (imp)
// {
// output_parameter_proxy<OrientedSegmentedMeshType> omp(output_mesh);
//
// viennamesh::algorithm_handle segmenting_algo( new hull_segmenting() );
// segmenting_algo->set_input( "mesh", imp );
// segmenting_algo->run();
//
// viennamesh::result_of::const_parameter_handle<OrientedSegmentedMeshType>::type tmp =
// dynamic_handle_cast<OrientedSegmentedMeshType>(segmenting_algo->get_output("mesh"));
//
// ::vgmodeler::hull_adaptor adaptor;
// if (cell_size.valid())
// adaptor.maxsize() = cell_size();
// adaptor.process( tmp().mesh, tmp().segmentation, omp().mesh, omp().segmentation );
//
// return true;
// }
// }
return false;
}