-// Copyright (C) 2007-2014 CEA/DEN, EDF R&D, OPEN CASCADE
+// Copyright (C) 2007-2016 CEA/DEN, EDF R&D, OPEN CASCADE
//
// Copyright (C) 2003-2007 OPEN CASCADE, EADS/CCR, LIP6, CEA/DEN,
// CEDRAT, EDF R&D, LEG, PRINCIPIA R&D, BUREAU VERITAS
//
#include "StdMeshers_ProjectionUtils.hxx"
-#include "StdMeshers_ProjectionSource1D.hxx"
-#include "StdMeshers_ProjectionSource2D.hxx"
-#include "StdMeshers_ProjectionSource3D.hxx"
-
#include "SMDS_EdgePosition.hxx"
+#include "SMDS_FacePosition.hxx"
+#include "SMESHDS_Mesh.hxx"
#include "SMESH_Algo.hxx"
#include "SMESH_Block.hxx"
#include "SMESH_Gen.hxx"
#include "SMESH_HypoFilter.hxx"
#include "SMESH_Hypothesis.hxx"
#include "SMESH_Mesh.hxx"
+#include "SMESH_MeshAlgos.hxx"
#include "SMESH_MesherHelper.hxx"
#include "SMESH_subMesh.hxx"
#include "SMESH_subMeshEventListener.hxx"
-#include "SMESH_MeshAlgos.hxx"
+#include "StdMeshers_ProjectionSource1D.hxx"
+#include "StdMeshers_ProjectionSource2D.hxx"
+#include "StdMeshers_ProjectionSource3D.hxx"
#include "utilities.h"
#include <BRepAdaptor_Surface.hxx>
+#include <BRepMesh_Delaun.hxx>
#include <BRepTools.hxx>
#include <BRepTools_WireExplorer.hxx>
#include <BRep_Builder.hxx>
#include <BRep_Tool.hxx>
#include <Bnd_Box.hxx>
#include <Geom2d_Curve.hxx>
+#include <Geom_Curve.hxx>
#include <TopAbs.hxx>
#include <TopExp.hxx>
#include <TopExp_Explorer.hxx>
#define RETURN_BAD_RESULT(msg) { MESSAGE(")-: Error: " << msg); return false; }
#define CONT_BAD_RESULT(msg) { MESSAGE(")-: Error: " << msg); continue; }
#define SHOW_SHAPE(v,msg) \
-// { \
-// if ( (v).IsNull() ) cout << msg << " NULL SHAPE" << endl; \
-// else if ((v).ShapeType() == TopAbs_VERTEX) {\
-// gp_Pnt p = BRep_Tool::Pnt( TopoDS::Vertex( (v) ));\
-// cout<<msg<<" "<<shapeIndex((v))<<" ( "<<p.X()<<", "<<p.Y()<<", "<<p.Z()<<" )"<<endl;} \
-// else {\
-// cout << msg << " "; TopAbs::Print((v).ShapeType(),cout) <<" "<<shapeIndex((v))<<endl;}\
-// }
+ // { show_shape((v),(msg)); }
#define SHOW_LIST(msg,l) \
-// { \
-// cout << msg << " ";\
-// list< TopoDS_Edge >::const_iterator e = l.begin();\
-// for ( int i = 0; e != l.end(); ++e, ++i ) {\
-// cout << i << "V (" << TopExp::FirstVertex( *e, true ).TShape().operator->() << ") "\
-// << i << "E (" << e->TShape().operator->() << "); "; }\
-// cout << endl;\
-// }
+ // { show_list((msg),(l)); }
namespace HERE = StdMeshers_ProjectionUtils;
return max(theMeshDS[0]->ShapeToIndex(S), theMeshDS[1]->ShapeToIndex(S) );
return long(S.TShape().operator->());
}
-
+ void show_shape( TopoDS_Shape v, const char* msg ) // debug
+ {
+ if ( v.IsNull() ) cout << msg << " NULL SHAPE" << endl;
+ else if (v.ShapeType() == TopAbs_VERTEX) {
+ gp_Pnt p = BRep_Tool::Pnt( TopoDS::Vertex( v ));
+ cout<<msg<<" "<<shapeIndex((v))<<" ( "<<p.X()<<", "<<p.Y()<<", "<<p.Z()<<" )"<<endl;}
+ else {
+ cout << msg << " "; TopAbs::Print((v).ShapeType(),cout) <<" "<<shapeIndex((v))<<endl;}
+ }
+ void show_list( const char* msg, const list< TopoDS_Edge >& l ) // debug
+ {
+ cout << msg << " ";
+ list< TopoDS_Edge >::const_iterator e = l.begin();
+ for ( int i = 0; e != l.end(); ++e, ++i ) {
+ cout << i << "V (" << TopExp::FirstVertex( *e, true ).TShape().operator->() << ") "
+ << i << "E (" << e->TShape().operator->() << "); "; }
+ cout << endl;
+ }
//================================================================================
/*!
* \brief Write shape for debug purposes
const char* type[] ={"COMPOUND","COMPSOLID","SOLID","SHELL","FACE","WIRE","EDGE","VERTEX"};
BRepTools::Write( shape, SMESH_Comment("/tmp/") << type[shape.ShapeType()] << "_"
<< shape.TShape().operator->() << ".brep");
+ if ( !theMeshDS[0] ) {
+ show_shape( TopoDS_Shape(), "avoid warning: show_shape() defined but not used");
+ show_list( "avoid warning: show_list() defined but not used", list< TopoDS_Edge >() );
+ }
#endif
return false;
}
v2 = SMESH_MesherHelper::IthVertex( 0, *eIt2 );
HERE::InsertAssociation( v1, v2, theMap );
}
+ theMap.SetAssocType( HERE::TShapeShapeMap::FEW_EF );
return true;
}
return false;
}
}
}
+ theMap.SetAssocType( HERE::TShapeShapeMap::PROPAGATION );
return true;
}
const gp_Pnt2d& uv,
const double& tol2d )
{
- TopoDS_Vertex VV[2];
- TopExp::Vertices( edge, VV[0], VV[1], true);
- gp_Pnt2d v1UV = BRep_Tool::Parameters( VV[vIndex], face);
+ TopoDS_Vertex V = SMESH_MesherHelper::IthVertex( vIndex, edge, /*CumOri=*/true );
+ gp_Pnt2d v1UV = BRep_Tool::Parameters( V, face);
double dist2d = v1UV.Distance( uv );
return dist2d < tol2d;
}
return true;
}
}
+ SMESH_MesherHelper helper( mesh );
+ helper.SetSubShape( shape );
+
TopExp_Explorer expF( shape, TopAbs_FACE ), expE;
if ( expF.More() ) {
for ( ; expF.More(); expF.Next() ) {
TopoDS_Shape wire =
StdMeshers_ProjectionUtils::OuterShape( TopoDS::Face( expF.Current() ), TopAbs_WIRE );
for ( expE.Init( wire, TopAbs_EDGE ); expE.More(); expE.Next() )
- if ( !SMESH_MesherHelper::IsClosedEdge( TopoDS::Edge( expE.Current() )))
- allBndEdges.push_back( TopoDS::Edge( expE.Current() ));
+ if ( ! helper.IsClosedEdge( TopoDS::Edge( expE.Current() )))
+ {
+ if ( helper.IsSeamShape( expE.Current() ))
+ allBndEdges.push_back( TopoDS::Edge( expE.Current() ));
+ else
+ allBndEdges.push_front( TopoDS::Edge( expE.Current() ));
+ }
}
}
else if ( shape.ShapeType() != TopAbs_EDGE) { // no faces
for ( expE.Init( shape, TopAbs_EDGE ); expE.More(); expE.Next() )
- if ( !SMESH_MesherHelper::IsClosedEdge( TopoDS::Edge( expE.Current() )))
- allBndEdges.push_back( TopoDS::Edge( expE.Current() ));
+ if ( ! helper.IsClosedEdge( TopoDS::Edge( expE.Current() )))
+ {
+ if ( helper.IsSeamShape( expE.Current() ))
+ allBndEdges.push_back( TopoDS::Edge( expE.Current() ));
+ else
+ allBndEdges.push_front( TopoDS::Edge( expE.Current() ));
+ }
}
else if ( shape.ShapeType() == TopAbs_EDGE ) {
- if ( !SMESH_MesherHelper::IsClosedEdge( TopoDS::Edge( shape )))
+ if ( ! helper.IsClosedEdge( TopoDS::Edge( shape )))
allBndEdges.push_back( TopoDS::Edge( shape ));
}
return !allBndEdges.empty();
}
+ /*!
+ * \brief Convertor used in Delaunay constructor
+ */
+ struct SideVector2UVPtStructVec
+ {
+ std::vector< const UVPtStructVec* > _uvVecs;
+
+ SideVector2UVPtStructVec( const TSideVector& wires )
+ {
+ _uvVecs.resize( wires.size() );
+ for ( size_t i = 0; i < wires.size(); ++i )
+ _uvVecs[ i ] = & wires[i]->GetUVPtStruct();
+ }
+
+ operator const std::vector< const UVPtStructVec* > & () const
+ {
+ return _uvVecs;
+ }
+ };
+
} // namespace
//=======================================================================
{
// Structure of this long function is following
// 1) Group -> Group projection: theShape1 is a group member,
- // theShape2 is another group. We find a group theShape1 is in and recall self.
+ // theShape2 is another group. We find the group theShape1 is in and recall self.
// 2) Accosiate same shapes with different location (partners).
- // 3) If vertex association is given, perform accosiation according to shape type:
+ // 3) If vertex association is given, perform association according to shape type:
// switch ( ShapeType ) {
// case TopAbs_EDGE:
// case ...:
// =================================================================================
// 1) Is it the case of associating a group member -> another group? (PAL16202, 16203)
// =================================================================================
- if ( theShape1.ShapeType() != theShape2.ShapeType() ) {
+ if ( theShape1.ShapeType() != theShape2.ShapeType() )
+ {
TopoDS_Shape group1, group2;
if ( theShape1.ShapeType() == TopAbs_COMPOUND ) {
group1 = theShape1;
for ( ; s1It.More(); s1It.Next(), s2It.Next() )
shapesQueue.push_back( make_pair( s1It.Value(), s2It.Value() ));
}
+ theMap.SetAssocType( TShapeShapeMap::PARTNER );
return true;
}
//======================================================================
// 3) HAS initial vertex association
//======================================================================
+ bool isVCloseness = ( theMap._assocType == TShapeShapeMap::CLOSE_VERTEX );
+ theMap.SetAssocType( TShapeShapeMap::INIT_VERTEX );
switch ( theShape1.ShapeType() ) {
// ----------------------------------------------------------------------
case TopAbs_EDGE: { // TopAbs_EDGE
}
}
list< TopoDS_Edge > edges1, edges2;
- int nbE = FindFaceAssociation( face1, VV1, face2, VV2, edges1, edges2 );
+ int nbE = FindFaceAssociation( face1, VV1, face2, VV2, edges1, edges2, isVCloseness );
if ( !nbE ) RETURN_BAD_RESULT("FindFaceAssociation() failed");
fixAssocByPropagation( nbE, edges1, edges2, theMesh1, theMesh2 );
F2 = FF2[ 1 ];
}
- TopTools_MapOfShape boundEdges;
-
// association of face sub-shapes and neighbour faces
list< pair < TopoDS_Face, TopoDS_Edge > > FE1, FE2;
list< pair < TopoDS_Face, TopoDS_Edge > >::iterator fe1, fe2;
TopExp::Vertices( edge1, VV1[0], VV1[1], true );
TopExp::Vertices( edge2, VV2[0], VV2[1], true );
list< TopoDS_Edge > edges1, edges2;
- int nbE = FindFaceAssociation( face1, VV1, face2, VV2, edges1, edges2 );
+ int nbE = FindFaceAssociation( face1, VV1, face2, VV2, edges1, edges2, isVCloseness );
if ( !nbE ) RETURN_BAD_RESULT("FindFaceAssociation() failed");
InsertAssociation( face1, face2, theMap ); // assoc faces
- MESSAGE("Assoc FACE " << theMesh1->GetMeshDS()->ShapeToIndex( face1 )<<
- " to " << theMesh2->GetMeshDS()->ShapeToIndex( face2 ));
+ // MESSAGE("Assoc FACE " << theMesh1->GetMeshDS()->ShapeToIndex( face1 )<<
+ // " to " << theMesh2->GetMeshDS()->ShapeToIndex( face2 ));
if ( nbE == 2 && (edge1.IsSame( edges1.front())) != (edge2.IsSame( edges2.front())))
{
reverseEdges( edges2, nbE );
list< TopoDS_Edge >::iterator eIt2 = edges2.begin();
for ( ; eIt1 != edges1.end(); ++eIt1, ++eIt2 )
{
- if ( !boundEdges.Add( *eIt1 )) continue; // already associated
- InsertAssociation( *eIt1, *eIt2, theMap ); // assoc edges
+ if ( !InsertAssociation( *eIt1, *eIt2, theMap )) // assoc edges
+ continue; // already associated
VV1[0] = TopExp::FirstVertex( *eIt1, true );
VV2[0] = TopExp::FirstVertex( *eIt2, true );
InsertAssociation( VV1[0], VV2[0], theMap ); // assoc vertices
TopoDS_Face nextFace1 = GetNextFace( edgeToFace1, *eIt1, face1 );
TopoDS_Face nextFace2 = GetNextFace( edgeToFace2, *eIt2, face2 );
if ( !nextFace1.IsNull() && !nextFace2.IsNull() ) {
+ if ( SMESH_MesherHelper::GetSubShapeOri( nextFace1, *eIt1 ) == eIt1->Orientation() )
+ nextFace1.Reverse();
+ if ( SMESH_MesherHelper::GetSubShapeOri( nextFace2, *eIt2 ) == eIt2->Orientation() )
+ nextFace2.Reverse();
FE1.push_back( make_pair( nextFace1, *eIt1 ));
FE2.push_back( make_pair( nextFace2, *eIt2 ));
}
}
// Associate shells
//
- int nbFaces1 = SMESH_MesherHelper:: Count( shell1, TopAbs_FACE, 0 );
- int nbFaces2 = SMESH_MesherHelper:: Count( shell2, TopAbs_FACE, 0 );
+ int nbFaces1 = SMESH_MesherHelper::Count( shell1, TopAbs_FACE, 0 );
+ int nbFaces2 = SMESH_MesherHelper::Count( shell2, TopAbs_FACE, 0 );
if ( nbFaces1 != nbFaces2 )
RETURN_BAD_RESULT("Different nb of faces found for shells");
if ( nbFaces1 > 0 ) {
v2e[0].UnBind( V[0] );
v2e[1].UnBind( V[1] );
InsertAssociation( e0, e1, theMap );
- MESSAGE("Assoc edge " << theMesh1->GetMeshDS()->ShapeToIndex( e0 )<<
- " to " << theMesh2->GetMeshDS()->ShapeToIndex( e1 ));
+ // MESSAGE("Assoc edge " << theMesh1->GetMeshDS()->ShapeToIndex( e0 )<<
+ // " to " << theMesh2->GetMeshDS()->ShapeToIndex( e1 ));
V[0] = GetNextVertex( e0, V[0] );
V[1] = GetNextVertex( e1, V[1] );
if ( !V[0].IsNull() ) {
InsertAssociation( V[0], V[1], theMap );
- MESSAGE("Assoc vertex " << theMesh1->GetMeshDS()->ShapeToIndex( V[0] )<<
- " to " << theMesh2->GetMeshDS()->ShapeToIndex( V[1] ));
+ // MESSAGE("Assoc vertex " << theMesh1->GetMeshDS()->ShapeToIndex( V[0] )<<
+ // " to " << theMesh2->GetMeshDS()->ShapeToIndex( V[1] ));
}
}
else if ( nbE0 == 2 )
InsertAssociation( e0b, e1b, theMap );
InsertAssociation( e0n, e1n, theMap );
InsertAssociation( v0n, v1n, theMap );
- MESSAGE("Assoc edge " << theMesh1->GetMeshDS()->ShapeToIndex( e0b )<<
- " to " << theMesh2->GetMeshDS()->ShapeToIndex( e1b ));
- MESSAGE("Assoc edge " << theMesh1->GetMeshDS()->ShapeToIndex( e0n )<<
- " to " << theMesh2->GetMeshDS()->ShapeToIndex( e1n ));
- MESSAGE("Assoc vertex " << theMesh1->GetMeshDS()->ShapeToIndex( v0n )<<
- " to " << theMesh2->GetMeshDS()->ShapeToIndex( v1n ));
+ // MESSAGE("Assoc edge " << theMesh1->GetMeshDS()->ShapeToIndex( e0b )<<
+ // " to " << theMesh2->GetMeshDS()->ShapeToIndex( e1b ));
+ // MESSAGE("Assoc edge " << theMesh1->GetMeshDS()->ShapeToIndex( e0n )<<
+ // " to " << theMesh2->GetMeshDS()->ShapeToIndex( e1n ));
+ // MESSAGE("Assoc vertex " << theMesh1->GetMeshDS()->ShapeToIndex( v0n )<<
+ // " to " << theMesh2->GetMeshDS()->ShapeToIndex( v1n ));
v2e[0].UnBind( V[0] );
v2e[1].UnBind( V[1] );
V[0] = v0n;
InsertAssociation( edge1, prpEdge, theMap ); // insert with a proper orientation
}
InsertAssociation( theShape1, theShape2, theMap );
+ theMap.SetAssocType( TShapeShapeMap::PROPAGATION );
return true; // done
}
}
// take care of proper association of propagated edges
bool same1 = edge1.IsSame( edges1.front() );
bool same2 = edge2.IsSame( edges2.front() );
+ if ( !same1 && !same2 )
+ {
+ same1 = ( edges1.back().Orientation() == edge1.Orientation() );
+ same2 = ( edges2.back().Orientation() == edge2.Orientation() );
+ }
if ( same1 != same2 )
{
reverseEdges(edges2, nbE);
for ( ; eIt1 != edges1.end(); ++eIt1, ++eIt2 )
{
InsertAssociation( *eIt1, *eIt2, theMap );
- VV1[0] = TopExp::FirstVertex( *eIt1, true );
- VV2[0] = TopExp::FirstVertex( *eIt2, true );
+ VV1[0] = SMESH_MesherHelper::IthVertex( 0, *eIt1, true );
+ VV2[0] = SMESH_MesherHelper::IthVertex( 0, *eIt2, true );
InsertAssociation( VV1[0], VV2[0], theMap );
}
InsertAssociation( theShape1, theShape2, theMap );
+ theMap.SetAssocType( TShapeShapeMap::PROPAGATION );
return true;
}
}
if ( !VV1[1].IsNull() ) {
InsertAssociation( VV1[0], VV2[0], theMap );
InsertAssociation( VV1[1], VV2[1], theMap );
- return FindSubShapeAssociation( theShape1, theMesh1, theShape2, theMesh2, theMap);
+ TShapeShapeMap::EAssocType asType = theMap._assocType;
+ theMap.SetAssocType( TShapeShapeMap::PROPAGATION );
+ if ( FindSubShapeAssociation( theShape1, theMesh1, theShape2, theMesh2, theMap ))
+ return true;
+ theMap._assocType = asType;
}
}
break; // try by vertex closeness
{
InsertAssociation( VV1[0], VV1[0], theMap );
InsertAssociation( VV1[1], VV1[1], theMap );
- if (FindSubShapeAssociation( theShape1, theMesh1, theShape2, theMesh2, theMap ))
+ TShapeShapeMap::EAssocType asType = theMap._assocType;
+ theMap.SetAssocType( TShapeShapeMap::COMMON_VERTEX );
+ if ( FindSubShapeAssociation( theShape1, theMesh1, theShape2, theMesh2, theMap ))
return true;
+ theMap._assocType = asType;
}
}
}
break;
}
}
+ theMap.SetAssocType( TShapeShapeMap::CLOSE_VERTEX );
InsertAssociation( VV1[ 0 ], VV2[ 0 ], theMap );
InsertAssociation( VV1[ 1 ], VV2[ 1 ], theMap );
- MESSAGE("Initial assoc VERT " << theMesh1->GetMeshDS()->ShapeToIndex( VV1[ 0 ] )<<
- " to " << theMesh2->GetMeshDS()->ShapeToIndex( VV2[ 0 ] )<<
- "\nand VERT " << theMesh1->GetMeshDS()->ShapeToIndex( VV1[ 1 ] )<<
- " to " << theMesh2->GetMeshDS()->ShapeToIndex( VV2[ 1 ] ));
+ // MESSAGE("Initial assoc VERT " << theMesh1->GetMeshDS()->ShapeToIndex( VV1[ 0 ] )<<
+ // " to " << theMesh2->GetMeshDS()->ShapeToIndex( VV2[ 0 ] )<<
+ // "\nand VERT " << theMesh1->GetMeshDS()->ShapeToIndex( VV1[ 1 ] )<<
+ // " to " << theMesh2->GetMeshDS()->ShapeToIndex( VV2[ 1 ] ));
if ( theShape1.ShapeType() == TopAbs_EDGE ) {
InsertAssociation( theShape1, theShape2, theMap );
return true;
* \param VV2 - vertices of face 2 associated with ones of face 1
* \param edges1 - out list of edges of face 1
* \param edges2 - out list of edges of face 2
+ * \param isClosenessAssoc - is association starting by VERTEX closeness
* \retval int - nb of edges in an outer wire in a success case, else zero
*/
//================================================================================
const TopoDS_Face& face2,
TopoDS_Vertex VV2[2],
list< TopoDS_Edge > & edges1,
- list< TopoDS_Edge > & edges2)
+ list< TopoDS_Edge > & edges2,
+ const bool isClosenessAssoc)
{
bool OK = false;
list< int > nbEInW1, nbEInW2;
// Define if we need to reverse one of wires to make edges in lists match each other
bool reverse = false;
+ const bool severalWires = ( nbEInW1.size() > 1 );
- if ( !VV1[1].IsSame( TopExp::LastVertex( edges1.front(), true ))) {
+ if ( !VV1[1].IsSame( TopExp::LastVertex( edges1.front(), true )))
+ {
reverse = true;
- edgeIt = --edges1.end();
// check if the second vertex belongs to the first or last edge in the wire
+ edgeIt = --edges1.end(); // pointer to the last edge in the outer wire
+ if ( severalWires ) {
+ edgeIt = edges1.begin();
+ std::advance( edgeIt, nbEInW1.front()-1 );
+ }
+ if ( TopExp::FirstVertex( *edgeIt ).IsSame( TopExp::LastVertex( *edgeIt )) &&
+ SMESH_Algo::isDegenerated( *edgeIt )) {
+ --edgeIt; // skip a degenerated edge (test 3D_mesh_Projection_00/A3)
+ }
if ( !VV1[1].IsSame( TopExp::FirstVertex( *edgeIt, true ))) {
- bool KO = true; // belongs to none
- if ( nbEInW1.size() > 1 ) { // several wires
- edgeIt = edges1.begin();
- std::advance( edgeIt, nbEInW1.front()-1 );
- KO = !VV1[1].IsSame( TopExp::FirstVertex( *edgeIt, true ));
- }
- if ( KO )
- CONT_BAD_RESULT("GetOrderedEdges() failed");
+ CONT_BAD_RESULT("GetOrderedEdges() failed");
}
}
- if ( !VV2[1].IsSame( TopExp::LastVertex( edges2.front(), true ))) {
+ if ( !VV2[1].IsSame( TopExp::LastVertex( edges2.front(), true )))
+ {
reverse = !reverse;
- edgeIt = --edges2.end();
- // move a degenerated edge from back to front
- // http://www.salome-platform.org/forum/forum_11/173031193
- if ( TopExp::FirstVertex( *edgeIt ).IsSame( TopExp::LastVertex( *edgeIt ))) {
- edges2.splice( edges2.begin(), edges2, edgeIt );
- edgeIt = --edges2.end();
- }
// check if the second vertex belongs to the first or last edge in the wire
+ edgeIt = --edges2.end(); // pointer to the last edge in the outer wire
+ if ( severalWires ) {
+ edgeIt = edges2.begin();
+ std::advance( edgeIt, nbEInW2.front()-1 );
+ }
+ if ( TopExp::FirstVertex( *edgeIt ).IsSame( TopExp::LastVertex( *edgeIt )) &&
+ SMESH_Algo::isDegenerated( *edgeIt )) {
+ --edgeIt; // skip a degenerated edge
+ }
if ( !VV2[1].IsSame( TopExp::FirstVertex( *edgeIt, true ))) {
- bool KO = true; // belongs to none
- if ( nbEInW2.size() > 1 ) { // several wires
- edgeIt = edges2.begin();
- std::advance( edgeIt, nbEInW2.front()-1 );
- KO = !VV2[1].IsSame( TopExp::FirstVertex( *edgeIt, true ));
- }
- if ( KO )
- CONT_BAD_RESULT("GetOrderedEdges() failed");
+ CONT_BAD_RESULT("GetOrderedEdges() failed");
}
}
if ( reverse )
{
reverseEdges( edges2 , nbEInW2.front());
+
+ if ( SMESH_Algo::isDegenerated( edges2.front() ))
+ {
+ // move a degenerated edge to the back of the outer wire
+ edgeIt = edges2.end();
+ if ( severalWires ) {
+ edgeIt = edges2.begin();
+ std::advance( edgeIt, nbEInW2.front() );
+ }
+ edges2.splice( edgeIt, edges2, edges2.begin() );
+ }
if (( VV1[1].IsSame( TopExp::LastVertex( edges1.front(), true ))) !=
( VV2[1].IsSame( TopExp::LastVertex( edges2.front(), true ))))
CONT_BAD_RESULT("GetOrderedEdges() failed");
OK = true;
} // loop algos getting an outer wire
+
+ if ( OK && nbEInW1.front() > 4 ) // care of a case where faces are closed (23032)
+ {
+ // check if the first edges are seam ones
+ list< TopoDS_Edge >::iterator revSeam1, revSeam2;
+ revSeam1 = std::find( ++edges1.begin(), edges1.end(), edges1.front().Reversed());
+ revSeam2 = edges2.end();
+ if ( revSeam1 != edges1.end() )
+ revSeam2 = std::find( ++edges2.begin(), edges2.end(), edges2.front().Reversed());
+ if ( revSeam2 != edges2.end() ) // two seams detected
+ {
+ bool reverse =
+ std::distance( edges1.begin(), revSeam1 ) != std::distance( edges2.begin(), revSeam2 );
+ if ( !reverse && isClosenessAssoc )
+ {
+ // compare orientations of a non-seam edges using 3D closeness;
+ // look for a non-seam edges
+ list< TopoDS_Edge >::iterator edge1 = ++edges1.begin();
+ list< TopoDS_Edge >::iterator edge2 = ++edges2.begin();
+ for ( ; edge1 != edges1.end(); ++edge1, ++edge2 )
+ {
+ if (( edge1 == revSeam1 ) ||
+ ( SMESH_Algo::isDegenerated( *edge1 )) ||
+ ( std::find( ++edges1.begin(), edges1.end(), edge1->Reversed()) != edges1.end() ))
+ continue;
+ gp_Pnt p1 = BRep_Tool::Pnt( VV1[0] );
+ gp_Pnt p2 = BRep_Tool::Pnt( VV2[0] );
+ gp_Vec vec2to1( p2, p1 );
+
+ gp_Pnt pp1[2], pp2[2];
+ const double r = 0.2345;
+ double f,l;
+ Handle(Geom_Curve) C = BRep_Tool::Curve( *edge1, f,l );
+ pp1[0] = C->Value( f * r + l * ( 1. - r ));
+ pp1[1] = C->Value( l * r + f * ( 1. - r ));
+ if ( edge1->Orientation() == TopAbs_REVERSED )
+ std::swap( pp1[0], pp1[1] );
+ C = BRep_Tool::Curve( *edge2, f,l );
+ if ( C.IsNull() ) return 0;
+ pp2[0] = C->Value( f * r + l * ( 1. - r )).Translated( vec2to1 );
+ pp2[1] = C->Value( l * r + f * ( 1. - r )).Translated( vec2to1 );
+ if ( edge2->Orientation() == TopAbs_REVERSED )
+ std::swap( pp2[0], pp2[1] );
+
+ double dist00 = pp1[0].SquareDistance( pp2[0] );
+ double dist01 = pp1[0].SquareDistance( pp2[1] );
+ reverse = ( dist00 > dist01 );
+ break;
+ }
+ }
+ if ( reverse ) // make a seam counterpart be the first
+ {
+ list< TopoDS_Edge >::iterator outWireEnd = edges2.begin();
+ std::advance( outWireEnd, nbEInW2.front() );
+ edges2.splice( outWireEnd, edges2, edges2.begin(), ++revSeam2 );
+ reverseEdges( edges2 , nbEInW2.front());
+ }
+ }
+ }
// Try to orient all (if !OK) or only internal wires (issue 0020996) by UV similarity
// Check that Vec(VV1[0],VV1[1]) in 2D on face1 is the same
// as Vec(VV2[0],VV2[1]) on face2
double vTol = BRep_Tool::Tolerance( VV1[0] );
- BRepAdaptor_Surface surface1( face1, false );
+ BRepAdaptor_Surface surface1( face1, true );
+ BRepAdaptor_Surface surface2( face2, true );
+ // TODO: use TrsfFinder2D to superpose the faces
+ gp_Pnt2d v0f1UV( surface1.FirstUParameter(), surface1.FirstVParameter() );
+ gp_Pnt2d v0f2UV( surface2.FirstUParameter(), surface2.FirstVParameter() );
+ gp_Pnt2d v1f1UV( surface1.LastUParameter(), surface1.LastVParameter() );
+ gp_Pnt2d v1f2UV( surface2.LastUParameter(), surface2.LastVParameter() );
double vTolUV =
surface1.UResolution( vTol ) + surface1.VResolution( vTol ); // let's be tolerant
- gp_Pnt2d v0f1UV = BRep_Tool::Parameters( VV1[0], face1 );
- gp_Pnt2d v0f2UV = BRep_Tool::Parameters( VV2[0], face2 );
- gp_Pnt2d v1f1UV = BRep_Tool::Parameters( VV1[1], face1 );
- gp_Pnt2d v1f2UV = BRep_Tool::Parameters( VV2[1], face2 );
+ // VV1[0] = TopExp::FirstVertex( edges1.front(), true ); // ori is important if face is closed
+ // VV1[1] = TopExp::LastVertex ( edges1.front(), true );
+ // VV2[0] = TopExp::FirstVertex( edges2.front(), true );
+ // VV2[1] = TopExp::LastVertex ( edges2.front(), true );
+ // gp_Pnt2d v0f1UV = BRep_Tool::Parameters( VV1[0], face1 );
+ // gp_Pnt2d v0f2UV = BRep_Tool::Parameters( VV2[0], face2 );
+ // gp_Pnt2d v1f1UV = BRep_Tool::Parameters( VV1[1], face1 );
+ // gp_Pnt2d v1f2UV = BRep_Tool::Parameters( VV2[1], face2 );
gp_Vec2d v01f1Vec( v0f1UV, v1f1UV );
gp_Vec2d v01f2Vec( v0f2UV, v1f2UV );
if ( Abs( v01f1Vec.X()-v01f2Vec.X()) < vTolUV &&
list< int >::iterator nbE2, nbE1 = nbEInW1.begin();
list< TopoDS_Edge >::iterator edge2Beg, edge1Beg = edges1.begin();
if ( OK ) std::advance( edge1Beg, *nbE1++ );
- // reach an end of edges of a current wire1
list< TopoDS_Edge >::iterator edge2End, edge1End;
//
// find corresponding wires of face2
std::advance( edge2End, *nbE2 );
if ( *nbE1 == *nbE2 && iW2 >= iW1 )
{
- // rotate edge2 untill coincidence with edge1 in 2D
+ // rotate edge2 until coincides with edge1 in 2D
int i = *nbE2;
- while ( i-- > 0 && !sameVertexUV( *edge2Beg, face2, 0, v0f1UV, vTolUV ))
+ bool sameUV = false;
+ while ( !( sameUV = sameVertexUV( *edge2Beg, face2, 0, v0f1UV, vTolUV )) && --i > 0 )
// move edge2Beg to place before edge2End
edges2.splice( edge2End, edges2, edge2Beg++ );
- if ( edge2Beg != edges2.end() &&
- sameVertexUV( *edge2Beg, face2, 0, v0f1UV, vTolUV ))
+ if ( sameUV )
{
if ( iW1 == 0 ) OK = true; // OK is for the first wire
// reverse edges2 if needed
if ( SMESH_MesherHelper::IsClosedEdge( *edge1Beg ))
{
- double f,l;
- Handle(Geom2d_Curve) c1 = BRep_Tool::CurveOnSurface( *edge1Beg, face1,f,l );
- if ( edge1Beg->Orientation() == TopAbs_REVERSED )
- std::swap( f,l );
- gp_Pnt2d uv1 = dUV + c1->Value( f * 0.8 + l * 0.2 ).XY();
-
- Handle(Geom2d_Curve) c2 = BRep_Tool::CurveOnSurface( *edge2Beg, face2,f,l );
- if ( edge2Beg->Orientation() == TopAbs_REVERSED )
- std::swap( f,l );
- gp_Pnt2d uv2 = c2->Value( f * 0.8 + l * 0.2 );
-
- if ( uv1.Distance( uv2 ) > vTolUV )
- edge2Beg->Reverse();
+ // Commented (so far?) as it's not checked if orientation must be same or reversed
+ // double f,l;
+ // Handle(Geom2d_Curve) c1 = BRep_Tool::CurveOnSurface( *edge1Beg, face1,f,l );
+ // if ( edge1Beg->Orientation() == TopAbs_REVERSED )
+ // std::swap( f,l );
+ // gp_Pnt2d uv1 = dUV + c1->Value( f * 0.8 + l * 0.2 ).XY();
+
+ // Handle(Geom2d_Curve) c2 = BRep_Tool::CurveOnSurface( *edge2Beg, face2,f,l );
+ // if ( edge2Beg->Orientation() == TopAbs_REVERSED )
+ // std::swap( f,l );
+ // gp_Pnt2d uv2 = c2->Value( f * 0.8 + l * 0.2 );
+ // gp_Pnt2d uv3 = c2->Value( l * 0.8 + f * 0.2 );
+
+ // if ( uv1.SquareDistance( uv2 ) > uv1.SquareDistance( uv3 ))
+ // edge2Beg->Reverse();
}
else
{
break;
}
}
- // prepare to the next wire loop
+ // prepare for the next wire loop
edge2Beg = edge2End;
}
edge1Beg = edge1End;
int prevChainSize = aChain.Extent();
if ( aChain.Add(anOppE) > prevChainSize ) { // ... anOppE is not in aChain
// Add found edge to the chain oriented so that to
- // have it co-directed with a forward MainEdge
+ // have it co-directed with a fromEdge
TopAbs_Orientation ori = anE.Orientation();
if ( anOppE.Orientation() == fourEdges[found].Orientation() )
ori = TopAbs::Reverse( ori );
helper1.SetSubShape( face1 );
helper2.SetSubShape( face2 );
- if ( helper1.HasSeam() != helper2.HasSeam() )
+ if ( helper1.HasRealSeam() != helper2.HasRealSeam() )
RETURN_BAD_RESULT("Different faces' geometry");
// Data to call SMESH_MeshEditor::FindMatchingNodes():
static_cast<const SMDS_EdgePosition*>(node->GetPosition());
pos2nodes.insert( make_pair( pos->GetUParameter(), node ));
}
- if ( pos2nodes.size() != edgeSM->NbNodes() )
+ if ((int) pos2nodes.size() != edgeSM->NbNodes() )
RETURN_BAD_RESULT("Equal params of nodes on edge "
<< smDS->ShapeToIndex( edge ) << " of face " << is2 );
}
string algoType = algo->GetName();
if ( algoType.substr(0, 11) != "Projection_")
- return gen->Compute( *mesh, shape, /*shapeOnly=*/true );
+ return gen->Compute( *mesh, shape, SMESH_Gen::SHAPE_ONLY );
// try to compute source mesh
srcMesh = mesh;
if ( MakeComputed( srcMesh->GetSubMesh( srcShape ), iterationNb + 1 ) &&
- gen->Compute( *mesh, shape, /*shapeOnly=*/true ))
+ gen->Compute( *mesh, shape, SMESH_Gen::SHAPE_ONLY ))
return sm->IsMeshComputed();
return false;
if ( !sm || sm->GetAlgoState() != SMESH_subMesh::NO_ALGO )
return usualMessage; // algo is OK, anything else is KO.
- // Try to find a type of all-dimentional algorithm that would compute the
+ // Try to find a type of all-dimensional algorithm that would compute the
// given sub-mesh if it could be launched before projection
const TopoDS_Shape shape = sm->GetSubShape();
const int shapeDim = SMESH_Gen::GetShapeDim( shape );
//================================================================================
/*!
- * \brief Computes transformation beween two sets of 2D points using
+ * \brief Computes transformation between two sets of 2D points using
* a least square approximation
*
* See "Surface Mesh Projection For Hexahedral Mesh Generation By Sweeping"
// cout << vec( 1 ) << "\t " << vec( 2 ) << endl
// << vec( 3 ) << "\t " << vec( 4 ) << endl;
- _trsf.SetTranslation( tgtGC );
+ _trsf.SetTranslationPart( tgtGC );
_srcOrig = srcGC;
- gp_Mat2d& M = const_cast< gp_Mat2d& >( _trsf.HVectorialPart());
+ gp_Mat2d& M = const_cast< gp_Mat2d& >( _trsf.VectorialPart());
M( 1,1 ) = vec( 1 );
- M( 2,1 ) = vec( 2 );
- M( 1,2 ) = vec( 3 );
+ M( 2,1 ) = vec( 2 ); // | 1 3 | -- is it correct ????????
+ M( 1,2 ) = vec( 3 ); // | 2 4 |
M( 2,2 ) = vec( 4 );
return true;
//================================================================================
/*!
- * \brief Computes transformation beween two sets of 3D points using
+ * \brief Computes transformation between two sets of 3D points using
* a least square approximation
*
* See "Surface Mesh Projection For Hexahedral Mesh Generation By Sweeping"
// << vec( 7 ) << "\t " << vec( 8 ) << "\t " << vec( 9 ) << endl;
_srcOrig = srcOrig;
- _trsf.SetTranslation( tgtOrig );
+ _trsf.SetTranslationPart( tgtOrig );
- gp_Mat& M = const_cast< gp_Mat& >( _trsf.HVectorialPart() );
+ gp_Mat& M = const_cast< gp_Mat& >( _trsf.VectorialPart() );
M.SetRows( gp_XYZ( vec( 1 ), vec( 2 ), vec( 3 )),
gp_XYZ( vec( 4 ), vec( 5 ), vec( 6 )),
gp_XYZ( vec( 7 ), vec( 8 ), vec( 9 )));
gp_XYZ TrsfFinder3D::TransformVec( const gp_Vec& v ) const
{
- return v.XYZ().Multiplied( _trsf.HVectorialPart() );
+ return v.XYZ().Multiplied( _trsf.VectorialPart() );
}
//================================================================================
/*!
{
// seems to be defined via Solve()
gp_XYZ newSrcOrig = _trsf.TranslationPart();
- gp_Mat& M = const_cast< gp_Mat& >( _trsf.HVectorialPart() );
+ gp_Mat& M = const_cast< gp_Mat& >( _trsf.VectorialPart() );
const double D = M.Determinant();
if ( D < 1e-3 * ( newSrcOrig - _srcOrig ).Modulus() )
{
return false;
}
gp_Mat Minv = M.Inverted();
- _trsf.SetTranslation( _srcOrig );
+ _trsf.SetTranslationPart( _srcOrig );
_srcOrig = newSrcOrig;
M = Minv;
}
}
return true;
}
-}
+
+ //================================================================================
+ /*!
+ * \brief triangulate the srcFace in 2D
+ * \param [in] srcWires - boundary of the src FACE
+ */
+ //================================================================================
+
+ Morph::Morph(const TSideVector& srcWires):
+ _delaunay( srcWires, /*checkUV=*/true )
+ {
+ _srcSubMesh = srcWires[0]->GetMesh()->GetSubMesh( srcWires[0]->Face() );
+ }
+
+ //================================================================================
+ /*!
+ * \brief Move non-marked target nodes
+ * \param [in,out] tgtHelper - helper
+ * \param [in] tgtWires - boundary nodes of the target FACE; must be in the
+ * same order as the nodes in srcWires given in the constructor
+ * \param [in] src2tgtNodes - map of src -> tgt nodes
+ * \param [in] moveAll - to move all nodes; if \c false, move only non-marked nodes
+ * \return bool - Ok or not
+ */
+ //================================================================================
+
+ bool Morph::Perform(SMESH_MesherHelper& tgtHelper,
+ const TSideVector& tgtWires,
+ Handle(ShapeAnalysis_Surface) tgtSurface,
+ const TNodeNodeMap& src2tgtNodes,
+ const bool moveAll)
+ {
+ // get tgt boundary points corresponding to src boundary nodes
+ size_t nbP = 0;
+ for ( size_t iW = 0; iW < tgtWires.size(); ++iW )
+ nbP += tgtWires[iW]->NbPoints() - 1; // 1st and last points coincide
+ if ( nbP != _delaunay.GetBndNodes().size() )
+ return false;
+
+ std::vector< gp_XY > tgtUV( nbP );
+ for ( size_t iW = 0, iP = 0; iW < tgtWires.size(); ++iW )
+ {
+ const UVPtStructVec& tgtPnt = tgtWires[iW]->GetUVPtStruct();
+ for ( int i = 0, nb = tgtPnt.size() - 1; i < nb; ++i, ++iP )
+ {
+ tgtUV[ iP ] = tgtPnt[i].UV();
+ }
+ }
+
+ SMESHDS_Mesh* tgtMesh = tgtHelper.GetMeshDS();
+ const SMDS_MeshNode *srcNode, *tgtNode;
+
+ // un-mark internal src nodes in order iterate them using _delaunay
+ int nbSrcNodes = 0;
+ SMDS_NodeIteratorPtr nIt = _srcSubMesh->GetSubMeshDS()->GetNodes();
+ if ( !nIt || !nIt->more() ) return true;
+ if ( moveAll )
+ {
+ nbSrcNodes = _srcSubMesh->GetSubMeshDS()->NbNodes();
+ while ( nIt->more() )
+ nIt->next()->setIsMarked( false );
+ }
+ else
+ {
+ while ( nIt->more() )
+ nbSrcNodes += int( !nIt->next()->isMarked() );
+ }
+
+ // Move tgt nodes
+
+ double bc[3]; // barycentric coordinates
+ int nodeIDs[3]; // nodes of a delaunay triangle
+ const SMDS_FacePosition* pos;
+
+ _delaunay.InitTraversal( nbSrcNodes );
+
+ while (( srcNode = _delaunay.NextNode( bc, nodeIDs )))
+ {
+ // compute new coordinates for a corresponding tgt node
+ gp_XY uvNew( 0., 0. ), nodeUV;
+ for ( int i = 0; i < 3; ++i )
+ uvNew += bc[i] * tgtUV[ nodeIDs[i]];
+ gp_Pnt xyz = tgtSurface->Value( uvNew );
+
+ // find and move tgt node
+ TNodeNodeMap::const_iterator n2n = src2tgtNodes.find( srcNode );
+ if ( n2n == src2tgtNodes.end() ) continue;
+ tgtNode = n2n->second;
+ tgtMesh->MoveNode( tgtNode, xyz.X(), xyz.Y(), xyz.Z() );
+
+ if (( pos = dynamic_cast< const SMDS_FacePosition* >( tgtNode->GetPosition() )))
+ const_cast<SMDS_FacePosition*>( pos )->SetParameters( uvNew.X(), uvNew.Y() );
+
+ --nbSrcNodes;
+ }
+
+ return nbSrcNodes == 0;
+
+ } // Morph::Perform
+
+ //=======================================================================
+ //function : Delaunay
+ //purpose : construct from face sides
+ //=======================================================================
+
+ Delaunay::Delaunay( const TSideVector& wires, bool checkUV ):
+ SMESH_Delaunay( SideVector2UVPtStructVec( wires ),
+ TopoDS::Face( wires[0]->FaceHelper()->GetSubShape() ),
+ wires[0]->FaceHelper()->GetSubShapeID() )
+ {
+ _wire = wires[0]; // keep a wire to assure _helper to keep alive
+ _helper = _wire->FaceHelper();
+ _checkUVPtr = checkUV ? & _checkUV : 0;
+ }
+
+ //=======================================================================
+ //function : Delaunay
+ //purpose : construct from UVPtStructVec's
+ //=======================================================================
+
+ Delaunay::Delaunay( const std::vector< const UVPtStructVec* > & boundaryNodes,
+ SMESH_MesherHelper& faceHelper,
+ bool checkUV):
+ SMESH_Delaunay( boundaryNodes,
+ TopoDS::Face( faceHelper.GetSubShape() ),
+ faceHelper.GetSubShapeID() )
+ {
+ _helper = & faceHelper;
+ _checkUVPtr = checkUV ? & _checkUV : 0;
+ }
+
+ //=======================================================================
+ //function : getNodeUV
+ //purpose :
+ //=======================================================================
+
+ gp_XY Delaunay::getNodeUV( const TopoDS_Face& face, const SMDS_MeshNode* node ) const
+ {
+ return _helper->GetNodeUV( face, node, 0, _checkUVPtr );
+ }
+
+
+} // namespace StdMeshers_ProjectionUtils
