: _p0(p0), _p1(p1), _geomEdgeInd(iE) {}
InSegment() : _p0(0), _p1(0), _geomEdgeInd(0) {}
+ const InPoint& point0() const { return *_p0; }
+ const InPoint& point1() const { return *_p1; }
+
inline bool isConnected( const TVDEdge* edge );
inline bool isExternal( const TVDEdge* edge );
namespace
{
- const int theNoBrachID = 0; // std::numeric_limits<int>::max();
- double theScale[2]; // scale used in bndSegsToMesh()
+ const int theNoBrachID = 0;
+ double theScale[2]; // scale used in bndSegsToMesh()
+ const size_t theNoEdgeID = std::numeric_limits<size_t>::max() / 1000;
// -------------------------------------------------------------------------------------
/*!
};
// -------------------------------------------------------------------------------------
/*!
- * \brief A segment on EDGE, used to create BndPoints
+ * \brief Segment of EDGE, used to create BndPoints
*/
struct BndSeg
{
InSegment* _inSeg;
const TVDEdge* _edge;
double _uLast;
+ BndSeg* _prev; // previous BndSeg in FACE boundary
int _branchID; // negative ID means reverse direction
BndSeg( InSegment* seg, const TVDEdge* edge, double u ):
- _inSeg(seg), _edge(edge), _uLast(u), _branchID( theNoBrachID ) {}
+ _inSeg(seg), _edge(edge), _uLast(u), _prev(0), _branchID( theNoBrachID ) {}
void setIndexToEdge( size_t id )
{
size_t geomEdge() const { return _inSeg->_geomEdgeInd; }
- void setBranch( int branchID, vector< BndSeg >& bndSegs )
+ static BndSeg* getBndSegOfEdge( const TVDEdge* edge,
+ vector< vector< BndSeg > >& bndSegsPerEdge )
{
- _branchID = branchID;
-
- if ( _edge ) // pass branch to an opposite BndSeg
+ BndSeg* seg = 0;
+ if ( edge )
{
- size_t oppSegIndex = SMESH_MAT2d::Branch::getBndSegment( _edge->twin() );
- if ( oppSegIndex < bndSegs.size() && bndSegs[ oppSegIndex ]._branchID == theNoBrachID )
- bndSegs[ oppSegIndex ]._branchID = -branchID;
+ size_t oppSegIndex = SMESH_MAT2d::Branch::getBndSegment( edge );
+ size_t oppEdgeIndex = SMESH_MAT2d::Branch::getGeomEdge ( edge );
+ if ( oppEdgeIndex < bndSegsPerEdge.size() &&
+ oppSegIndex < bndSegsPerEdge[ oppEdgeIndex ].size() )
+ {
+ seg = & bndSegsPerEdge[ oppEdgeIndex ][ oppSegIndex ];
+ }
}
+ return seg;
}
- bool hasOppositeEdge( const size_t noEdgeID )
+
+ void setBranch( int branchID, vector< vector< BndSeg > >& bndSegsPerEdge )
+ {
+ _branchID = branchID;
+
+ // pass branch to an opposite BndSeg
+ if ( _edge )
+ if ( BndSeg* oppSeg = getBndSegOfEdge( _edge->twin(), bndSegsPerEdge ))
+ {
+ if ( oppSeg->_branchID == theNoBrachID )
+ oppSeg->_branchID = -branchID;
+ }
+ }
+ bool hasOppositeEdge()
{
if ( !_edge ) return false;
- return ( _inSeg->getGeomEdge( _edge->twin()->cell() ) != noEdgeID );
+ return ( _inSeg->getGeomEdge( _edge->twin()->cell() ) != theNoEdgeID );
}
// check a next segment in CW order
return false;
}
+ }; // struct BndSeg
+
+ // -------------------------------------------------------------------------------------
+ /*!
+ * \brief Iterator
+ */
+ struct BranchIterator
+ {
+ int _i, _size;
+ const std::vector<const TVDEdge*> & _edges;
+ bool _closed;
+
+ BranchIterator(const std::vector<const TVDEdge*> & edges, int i )
+ :_i( i ), _size( edges.size() ), _edges( edges )
+ {
+ _closed = ( edges[0]->vertex1() == edges.back()->vertex0() ); // closed branch
+ }
+ const TVDEdge* operator++() { ++_i; return edge(); }
+ const TVDEdge* operator--() { --_i; return edge(); }
+ bool operator<( const BranchIterator& other ) { return _i < other._i; }
+ BranchIterator& operator=( const BranchIterator& other ) { _i = other._i; return *this; }
+ void set(int i) { _i = i; }
+ int index() const { return _i; }
+ int indexMod() const { return ( _i + _size ) % _size; }
+ const TVDEdge* edge() const {
+ return _closed ? _edges[ indexMod() ] : ( _i < 0 || _i >= _size ) ? 0 : _edges[ _i ];
+ }
+ const TVDEdge* edgePrev() { --_i; const TVDEdge* e = edge(); ++_i; return e; }
+ const TVDEdge* edgeNext() { ++_i; const TVDEdge* e = edge(); --_i; return e; }
};
//================================================================================
*/
//================================================================================
- void updateJoinedBranch( vector< const TVDEdge* > & branchEdges,
- const size_t newID,
- vector< BndSeg > & bndSegs,
- const bool reverse)
+ void updateJoinedBranch( vector< const TVDEdge* > & branchEdges,
+ const size_t newID,
+ vector< vector< BndSeg > > & bndSegs,
+ const bool reverse)
{
+ BndSeg *seg1, *seg2;
if ( reverse )
{
for ( size_t i = 0; i < branchEdges.size(); ++i )
{
- size_t seg1 = SMESH_MAT2d::Branch::getBndSegment( branchEdges[i] );
- size_t seg2 = SMESH_MAT2d::Branch::getBndSegment( branchEdges[i]->twin() );
- bndSegs[ seg1 ]._branchID /= bndSegs[ seg1 ].branchID();
- bndSegs[ seg2 ]._branchID /= bndSegs[ seg2 ].branchID();
- bndSegs[ seg1 ]._branchID *= -newID;
- bndSegs[ seg2 ]._branchID *= -newID;
- branchEdges[i] = branchEdges[i]->twin();
+ if (( seg1 = BndSeg::getBndSegOfEdge( branchEdges[i], bndSegs )) &&
+ ( seg2 = BndSeg::getBndSegOfEdge( branchEdges[i]->twin(), bndSegs )))
+ {
+ seg1->_branchID /= seg1->branchID();
+ seg2->_branchID /= seg2->branchID();
+ seg1->_branchID *= -newID;
+ seg2->_branchID *= -newID;
+ branchEdges[i] = branchEdges[i]->twin();
+ }
}
std::reverse( branchEdges.begin(), branchEdges.end() );
}
{
for ( size_t i = 0; i < branchEdges.size(); ++i )
{
- size_t seg1 = SMESH_MAT2d::Branch::getBndSegment( branchEdges[i] );
- size_t seg2 = SMESH_MAT2d::Branch::getBndSegment( branchEdges[i]->twin() );
- bndSegs[ seg1 ]._branchID /= bndSegs[ seg1 ].branchID();
- bndSegs[ seg2 ]._branchID /= bndSegs[ seg2 ].branchID();
- bndSegs[ seg1 ]._branchID *= newID;
- bndSegs[ seg2 ]._branchID *= newID;
+ if (( seg1 = BndSeg::getBndSegOfEdge( branchEdges[i], bndSegs )) &&
+ ( seg2 = BndSeg::getBndSegOfEdge( branchEdges[i]->twin(), bndSegs )))
+ {
+ seg1->_branchID /= seg1->branchID();
+ seg2->_branchID /= seg2->branchID();
+ seg1->_branchID *= newID;
+ seg2->_branchID *= newID;
+ }
}
}
}
vector< const SMESH_MAT2d::BranchEnd* >& branchPnt,
SMESH_MAT2d::Boundary& boundary )
{
- const size_t noEdgeID = inSegments.size() + 1; // ID of non-existent geom EDGE
-
- // Associate MA cells with inSegments
+ // Associate MA cells with geom EDGEs
for (TVD::const_cell_iterator it = vd.cells().begin(); it != vd.cells().end(); ++it)
{
const TVDCell* cell = &(*it);
}
else
{
- InSegment::setGeomEdgeToCell( cell, noEdgeID );
+ InSegment::setGeomEdgeToCell( cell, theNoEdgeID );
}
}
{
if ( edge->is_primary() ) break; // this should not happen
const TVDEdge* edge2 = edge->twin(); // we are in a neighbor cell, add MA edges to inPnt
- if ( inSeg.getGeomEdge( edge2->cell() ) != noEdgeID )
+ if ( inSeg.getGeomEdge( edge2->cell() ) != theNoEdgeID )
break; // cell of an InSegment
bool hasInfinite = false;
list< const TVDEdge* > pointEdges;
if ( inPoints.front() == inPoints.back() /*&& !inPoints[0]._edges.empty()*/ )
{
inPntChecked[0] = false; // do not use the 1st point twice
- //InSegment::setGeomEdgeToCell( inPoints[0]._edges.back()->cell(), noEdgeID );
+ //InSegment::setGeomEdgeToCell( inPoints[0]._edges.back()->cell(), theNoEdgeID );
inPoints[0]._edges.clear();
}
// Divide InSegment's into BndSeg's (so that each BndSeg corresponds to one MA edge)
- vector< BndSeg > bndSegs;
- bndSegs.reserve( inSegments.size() * 3 );
-
- list< const TVDEdge* >::reverse_iterator e;
- for ( size_t i = 0; i < inSegments.size(); ++i )
+ vector< vector< BndSeg > > bndSegsPerEdge( boundary.nbEdges() ); // all BndSeg's
{
- InSegment& inSeg = inSegments[i];
+ vector< BndSeg > bndSegs; // bndSeg's of a current EDGE
+ size_t prevGeomEdge = theNoEdgeID;
- // segments around 1st concave point
- size_t ip0 = inSeg._p0->index( inPoints );
- if ( inPntChecked[ ip0 ] )
- for ( e = inSeg._p0->_edges.rbegin(); e != inSeg._p0->_edges.rend(); ++e )
- bndSegs.push_back( BndSeg( &inSeg, *e, inSeg._p0->_param ));
- inPntChecked[ ip0 ] = false;
-
- // segments of InSegment's
- const size_t nbMaEdges = inSeg._edges.size();
- switch ( nbMaEdges ) {
- case 0: // "around" circle center
- bndSegs.push_back( BndSeg( &inSeg, 0, inSeg._p1->_param )); break;
- case 1:
- bndSegs.push_back( BndSeg( &inSeg, inSeg._edges.back(), inSeg._p1->_param )); break;
- default:
- gp_XY inSegDir( inSeg._p1->_a - inSeg._p0->_a,
- inSeg._p1->_b - inSeg._p0->_b );
- const double inSegLen2 = inSegDir.SquareModulus();
- e = inSeg._edges.rbegin();
- for ( size_t iE = 1; iE < nbMaEdges; ++e, ++iE )
+ list< const TVDEdge* >::reverse_iterator e;
+ for ( size_t i = 0; i < inSegments.size(); ++i )
+ {
+ InSegment& inSeg = inSegments[i];
+
+ if ( inSeg._geomEdgeInd != prevGeomEdge )
{
- gp_XY toMA( (*e)->vertex0()->x() - inSeg._p0->_a,
- (*e)->vertex0()->y() - inSeg._p0->_b );
- double r = toMA * inSegDir / inSegLen2;
- double u = r * inSeg._p1->_param + ( 1. - r ) * inSeg._p0->_param;
- bndSegs.push_back( BndSeg( &inSeg, *e, u ));
+ if ( !bndSegs.empty() )
+ bndSegsPerEdge[ prevGeomEdge ].swap( bndSegs );
+ prevGeomEdge = inSeg._geomEdgeInd;
}
- bndSegs.push_back( BndSeg( &inSeg, *e, inSeg._p1->_param ));
- }
- // segments around 2nd concave point
- size_t ip1 = inSeg._p1->index( inPoints );
- if ( inPntChecked[ ip1 ] )
- for ( e = inSeg._p1->_edges.rbegin(); e != inSeg._p1->_edges.rend(); ++e )
+
+ // segments around 1st concave point
+ size_t ip0 = inSeg._p0->index( inPoints );
+ if ( inPntChecked[ ip0 ] )
+ for ( e = inSeg._p0->_edges.rbegin(); e != inSeg._p0->_edges.rend(); ++e )
+ bndSegs.push_back( BndSeg( &inSeg, *e, inSeg._p0->_param ));
+ inPntChecked[ ip0 ] = false;
+
+ // segments of InSegment's
+ const size_t nbMaEdges = inSeg._edges.size();
+ switch ( nbMaEdges ) {
+ case 0: // "around" circle center
+ bndSegs.push_back( BndSeg( &inSeg, 0, inSeg._p1->_param )); break;
+ case 1:
+ bndSegs.push_back( BndSeg( &inSeg, inSeg._edges.back(), inSeg._p1->_param )); break;
+ default:
+ gp_XY inSegDir( inSeg._p1->_a - inSeg._p0->_a,
+ inSeg._p1->_b - inSeg._p0->_b );
+ const double inSegLen2 = inSegDir.SquareModulus();
+ e = inSeg._edges.rbegin();
+ for ( size_t iE = 1; iE < nbMaEdges; ++e, ++iE )
+ {
+ gp_XY toMA( (*e)->vertex0()->x() - inSeg._p0->_a,
+ (*e)->vertex0()->y() - inSeg._p0->_b );
+ double r = toMA * inSegDir / inSegLen2;
+ double u = r * inSeg._p1->_param + ( 1. - r ) * inSeg._p0->_param;
+ bndSegs.push_back( BndSeg( &inSeg, *e, u ));
+ }
bndSegs.push_back( BndSeg( &inSeg, *e, inSeg._p1->_param ));
- inPntChecked[ ip1 ] = false;
+ }
+ // segments around 2nd concave point
+ size_t ip1 = inSeg._p1->index( inPoints );
+ if ( inPntChecked[ ip1 ] )
+ for ( e = inSeg._p1->_edges.rbegin(); e != inSeg._p1->_edges.rend(); ++e )
+ bndSegs.push_back( BndSeg( &inSeg, *e, inSeg._p1->_param ));
+ inPntChecked[ ip1 ] = false;
+ }
+ if ( !bndSegs.empty() )
+ bndSegsPerEdge[ prevGeomEdge ].swap( bndSegs );
}
- // make TVDEdge's know it's BndSeg to enable passing branchID to
- // an opposite BndSeg in BndSeg::setBranch()
- for ( size_t i = 0; i < bndSegs.size(); ++i )
- bndSegs[i].setIndexToEdge( i );
+ // prepare to MA branch search
+ for ( size_t iE = 0; iE < bndSegsPerEdge.size(); ++iE )
+ {
+ // 1) make TVDEdge's know it's BndSeg to enable passing branchID to
+ // an opposite BndSeg in BndSeg::setBranch(); geom EDGE ID is known from TVDCell
+ // 2) connect bndSegs via BndSeg::_prev
+
+ vector< BndSeg >& bndSegs = bndSegsPerEdge[ iE ];
+ if ( bndSegs.empty() ) continue;
+
+ for ( size_t i = 1; i < bndSegs.size(); ++i )
+ {
+ bndSegs[i]._prev = & bndSegs[i-1];
+ bndSegs[i].setIndexToEdge( i );
+ }
+ // look for the last bndSeg of previous EDGE to set bndSegs[0]._prev
+ const InPoint& p0 = bndSegs[0]._inSeg->point0();
+ for ( size_t iE2 = 0; iE2 < bndSegsPerEdge.size(); ++iE2 )
+ if ( p0 == bndSegsPerEdge[ iE2 ].back()._inSeg->point1() )
+ {
+ bndSegs[0]._prev = & bndSegsPerEdge[ iE2 ].back();
+ break;
+ }
+ bndSegs[0].setIndexToEdge( 0 );
+ }
- bndSegsToMesh( bndSegs ); // debug: visually check found MA edges
+ //bndSegsToMesh( bndSegsPerEdge ); // debug: visually check found MA edges
// Find TVDEdge's of Branches and associate them with bndSegs
map< const TVDVertex*, SMESH_MAT2d::BranchEndType > endType;
int branchID = 1; // we code orientation as branchID sign
- branchEdges.resize( branchID + 1 );
-
- size_t i1st = 0;
- while ( i1st < bndSegs.size() && !bndSegs[i1st].hasOppositeEdge( noEdgeID ))
- ++i1st;
- bndSegs[i1st].setBranch( branchID, bndSegs ); // set to the i-th and to the opposite bndSeg
- branchEdges[ branchID ].push_back( bndSegs[i1st]._edge );
+ branchEdges.resize( branchID );
- for ( size_t i = i1st+1; i < bndSegs.size(); ++i )
+ for ( size_t iE = 0; iE < bndSegsPerEdge.size(); ++iE )
{
- if ( bndSegs[i].branchID() )
+ vector< BndSeg >& bndSegs = bndSegsPerEdge[ iE ];
+ for ( size_t i = 0; i < bndSegs.size(); ++i )
{
- branchID = bndSegs[i]._branchID; // with sign
+ if ( bndSegs[i].branchID() )
+ {
+ if ( bndSegs[i]._prev &&
+ bndSegs[i]._branchID == -bndSegs[i]._prev->_branchID &&
+ bndSegs[i]._edge )
+ {
+ SMESH_MAT2d::BranchEndType type =
+ ( bndSegs[i]._inSeg->isConnected( bndSegs[i]._edge ) ?
+ SMESH_MAT2d::BE_ON_VERTEX :
+ SMESH_MAT2d::BE_END );
+ endType.insert( make_pair( bndSegs[i]._edge->vertex1(), type ));
+ }
+ continue;
+ }
+ if ( !bndSegs[i]._prev &&
+ !bndSegs[i].hasOppositeEdge() )
+ continue;
- if ( bndSegs[i]._branchID == -bndSegs[i-1]._branchID &&
- bndSegs[i]._edge )
+ if ( !bndSegs[i]._prev ||
+ !bndSegs[i]._prev->isSameBranch( bndSegs[i] ))
{
- SMESH_MAT2d::BranchEndType type =
- ( bndSegs[i]._inSeg->isConnected( bndSegs[i]._edge ) ?
- SMESH_MAT2d::BE_ON_VERTEX :
- SMESH_MAT2d::BE_END );
- endType.insert( make_pair( bndSegs[i]._edge->vertex1(), type ));
+ branchEdges.resize(( branchID = branchEdges.size()) + 1 );
+ if ( bndSegs[i]._edge && bndSegs[i]._prev )
+ endType.insert( make_pair( bndSegs[i]._edge->vertex1(), SMESH_MAT2d::BE_BRANCH_POINT ));
}
- continue;
- }
- if ( !bndSegs[i-1].isSameBranch( bndSegs[i] ))
- {
- branchEdges.resize(( branchID = branchEdges.size()) + 1 );
- if ( bndSegs[i]._edge )
- endType.insert( make_pair( bndSegs[i]._edge->vertex1(),
- SMESH_MAT2d::BE_BRANCH_POINT ));
- }
- bndSegs[i].setBranch( branchID, bndSegs ); // set to i-th and to the opposite bndSeg
- if ( bndSegs[i].hasOppositeEdge( noEdgeID ))
- branchEdges[ bndSegs[i].branchID() ].push_back( bndSegs[i]._edge );
- }
- // define BranchEndType of the first TVDVertex
- if ( bndSegs.front()._branchID == -bndSegs.back()._branchID )
- {
- if ( bndSegs[0]._edge )
- {
- SMESH_MAT2d::BranchEndType type =
- ( bndSegs[0]._inSeg->isConnected( bndSegs[0]._edge ) ?
- SMESH_MAT2d::BE_ON_VERTEX :
- SMESH_MAT2d::BE_END );
- endType.insert( make_pair( bndSegs[0]._edge->vertex1(), type ));
- }
- else if ( bndSegs.back()._edge )
- {
- SMESH_MAT2d::BranchEndType type =
- ( bndSegs.back()._inSeg->isConnected( bndSegs.back()._edge ) ?
- SMESH_MAT2d::BE_ON_VERTEX :
- SMESH_MAT2d::BE_END );
- endType.insert( make_pair( bndSegs.back()._edge->vertex0(), type ));
+ else if ( bndSegs[i]._prev->_branchID )
+ {
+ branchID = bndSegs[i]._prev->_branchID; // with sign
+ }
+ else if ( bndSegs[i]._edge && // 1st bndSeg of a WIRE
+ bndSegs[i]._inSeg->isConnected( bndSegs[i]._edge ))
+ {
+ branchEdges.resize(( branchID = branchEdges.size()) + 1 );
+ if ( bndSegs[i]._inSeg->point0() == bndSegs[i]._edge->vertex1() )
+ endType.insert( make_pair( bndSegs[i]._edge->vertex1(), SMESH_MAT2d::BE_ON_VERTEX ));
+ else
+ endType.insert( make_pair( bndSegs[i]._edge->vertex0(), SMESH_MAT2d::BE_ON_VERTEX ));
+ }
+
+ bndSegs[i].setBranch( branchID, bndSegsPerEdge ); // set to i-th and to the opposite bndSeg
+ if ( bndSegs[i].hasOppositeEdge() )
+ branchEdges[ bndSegs[i].branchID() ].push_back( bndSegs[i]._edge );
}
}
+
// join the 1st and the last branch edges if it is the same branch
- if ( bndSegs.back().branchID() != bndSegs.front().branchID() &&
- bndSegs.back().isSameBranch( bndSegs.front() ))
- {
- vector<const TVDEdge*> & br1 = branchEdges[ bndSegs.front().branchID() ];
- vector<const TVDEdge*> & br2 = branchEdges[ bndSegs.back().branchID() ];
- br1.insert( br1.begin(), br2.begin(), br2.end() );
- br2.clear();
- }
+ // if ( bndSegs.back().branchID() != bndSegs.front().branchID() &&
+ // bndSegs.back().isSameBranch( bndSegs.front() ))
+ // {
+ // vector<const TVDEdge*> & br1 = branchEdges[ bndSegs.front().branchID() ];
+ // vector<const TVDEdge*> & br2 = branchEdges[ bndSegs.back().branchID() ];
+ // br1.insert( br1.begin(), br2.begin(), br2.end() );
+ // br2.clear();
+ // }
// remove branches ending at BE_ON_VERTEX
if ( !v0 && !v1 )
continue;
- size_t iBrToJoin = 0;
- for ( size_t iB2 = 1; iB2 < branchEdges.size(); ++iB2 )
+ for ( int isV0 = 0; isV0 < 2; ++isV0 )
{
- if ( branchEdges[iB2].empty() || isBranchRemoved[iB2] || iB == iB2 )
- continue;
- const TVDVertex* v02 = branchEdges[iB2][0]->vertex1();
- const TVDVertex* v12 = branchEdges[iB2].back()->vertex0();
- if ( v0 == v02 || v0 == v12 || v1 == v02 || v1 == v12 )
+ const TVDVertex* v = isV0 ? v0 : v1;
+ size_t iBrToJoin = 0;
+ for ( size_t iB2 = 1; iB2 < branchEdges.size(); ++iB2 )
{
- if ( iBrToJoin > 0 )
+ if ( branchEdges[iB2].empty() || isBranchRemoved[iB2] || iB == iB2 )
+ continue;
+ const TVDVertex* v02 = branchEdges[iB2][0]->vertex1();
+ const TVDVertex* v12 = branchEdges[iB2].back()->vertex0();
+ if ( v == v02 || v == v12 )
{
- iBrToJoin = 0;
- break; // more than 2 not removed branches meat at a TVDVertex
+ if ( iBrToJoin > 0 )
+ {
+ iBrToJoin = 0;
+ break; // more than 2 not removed branches meat at a TVDVertex
+ }
+ iBrToJoin = iB2;
}
- iBrToJoin = iB2;
}
- }
- if ( iBrToJoin > 0 )
- {
- vector<const TVDEdge*>& branch = branchEdges[ iBrToJoin ];
- const TVDVertex* v02 = branch[0]->vertex1();
- const TVDVertex* v12 = branch.back()->vertex0();
- updateJoinedBranch( branch, iB, bndSegs, /*reverse=*/(v0 == v02 || v1 == v12 ));
- if ( v0 == v02 || v0 == v12 )
- branchEdges[iB].insert( branchEdges[iB].begin(), branch.begin(), branch.end() );
- else
- branchEdges[iB].insert( branchEdges[iB].end(), branch.begin(), branch.end() );
- branch.clear();
+ if ( iBrToJoin > 0 )
+ {
+ vector<const TVDEdge*>& branch = branchEdges[ iBrToJoin ];
+ const TVDVertex* v02 = branch[0]->vertex1();
+ const TVDVertex* v12 = branch.back()->vertex0();
+ updateJoinedBranch( branch, iB, bndSegsPerEdge, /*reverse=*/(v0 == v02 || v1 == v12 ));
+ if ( v0 == v02 || v0 == v12 )
+ branchEdges[iB].insert( branchEdges[iB].begin(), branch.begin(), branch.end() );
+ else
+ branchEdges[iB].insert( branchEdges[iB].end(), branch.begin(), branch.end() );
+ branch.clear();
+ }
}
} // loop on branchEdges
} // if ( ignoreCorners )
// Fill in BndPoints of each EDGE of the boundary
- size_t iSeg = 0;
+ //size_t iSeg = 0;
int edgeInd = -1, dInd = 0;
- while ( iSeg < bndSegs.size() )
+ for ( size_t iE = 0; iE < bndSegsPerEdge.size(); ++iE )
{
- const size_t geomID = bndSegs[ iSeg ].geomEdge();
- SMESH_MAT2d::BndPoints & bndPoints = boundary.getPoints( geomID );
-
- size_t nbSegs = 0;
- for ( size_t i = iSeg; i < bndSegs.size() && geomID == bndSegs[ i ].geomEdge(); ++i )
- ++nbSegs;
- size_t iSegEnd = iSeg + nbSegs;
+ vector< BndSeg >& bndSegs = bndSegsPerEdge[ iE ];
+ SMESH_MAT2d::BndPoints & bndPoints = boundary.getPoints( iE );
// make TVDEdge know an index of bndSegs within BndPoints
- for ( size_t i = iSeg; i < iSegEnd; ++i )
+ for ( size_t i = 0; i < bndSegs.size(); ++i )
if ( bndSegs[i]._edge )
- SMESH_MAT2d::Branch::setBndSegment( i - iSeg, bndSegs[i]._edge );
+ SMESH_MAT2d::Branch::setBndSegment( i, bndSegs[i]._edge );
// parameters on EDGE
- bndPoints._params.reserve( nbSegs + 1 );
- bndPoints._params.push_back( bndSegs[ iSeg ]._inSeg->_p0->_param );
+ bndPoints._params.reserve( bndSegs.size() + 1 );
+ bndPoints._params.push_back( bndSegs[ 0 ]._inSeg->_p0->_param );
- for ( size_t i = iSeg; i < iSegEnd; ++i )
+ for ( size_t i = 0; i < bndSegs.size(); ++i )
bndPoints._params.push_back( bndSegs[ i ]._uLast );
// MA edges
- bndPoints._maEdges.reserve( nbSegs );
+ bndPoints._maEdges.reserve( bndSegs.size() );
- for ( size_t i = iSeg; i < iSegEnd; ++i )
+ for ( size_t i = 0; i < bndSegs.size(); ++i )
{
const size_t brID = bndSegs[ i ].branchID();
const SMESH_MAT2d::Branch* br = branchByID[ brID ];
bndPoints._maEdges.push_back( make_pair( br, ( 1 + edgeInd ) * dInd ));
} // loop on bndSegs of an EDGE
-
- iSeg = iSegEnd;
-
} // loop on all bndSegs to construct Boundary
// Initialize branches
return false;
const BndPoints& points = _pointsPerEdge[ bp._edgeIndex ];
- if ( bp._param - points._params[0] < points._params.back() - bp._param )
+ if ( Abs( bp._param - points._params[0]) < Abs( points._params.back() - bp._param ))
bp._param = points._params[0];
else
bp._param = points._params.back();
std::vector< BranchPoint >& divPoints,
const vector<const TVDEdge*>& maEdges,
const vector<const TVDEdge*>& maEdgesTwin,
- size_t & i) const
+ int & i) const
{
// if there is a concave vertex between EDGEs
// then position of a dividing BranchPoint is undefined, it is somewhere
BranchPoint divisionPnt;
divisionPnt._branch = this;
+ BranchIterator iCur( maEdges, i );
+
size_t ie1 = getGeomEdge( maEdges [i] );
size_t ie2 = getGeomEdge( maEdgesTwin[i] );
- size_t iSeg1 = getBndSegment( maEdges[ i-1 ] );
- size_t iSeg2 = getBndSegment( maEdges[ i ] );
+ size_t iSeg1 = getBndSegment( iCur.edgePrev() );
+ size_t iSeg2 = getBndSegment( iCur.edge() );
bool isConcaPrev = _boundary->isConcaveSegment( edgeIDs1.back(), iSeg1 );
bool isConcaNext = _boundary->isConcaveSegment( ie1, iSeg2 );
if ( !isConcaNext && !isConcaPrev )
bool isConcaveV = false;
- int iPrev = i-1, iNext = i;
+ const TVDEdge* maE;
+ BranchIterator iPrev( maEdges, i ), iNext( maEdges, i );
+ --iPrev;
if ( isConcaNext ) // all null-length segments follow
{
// look for a VERTEX of the opposite EDGE
- ++iNext; // end of null-length segments
- while ( iNext < maEdges.size() )
+ // iNext - next after all null-length segments
+ while ( maE = ++iNext )
{
- iSeg2 = getBndSegment( maEdges[ iNext ] );
- if ( _boundary->isConcaveSegment( ie1, iSeg2 ))
- ++iNext;
- else
+ iSeg2 = getBndSegment( maE );
+ if ( !_boundary->isConcaveSegment( ie1, iSeg2 ))
break;
}
bool vertexFound = false;
- for ( size_t iE = i+1; iE < iNext; ++iE )
+ for ( ++iCur; iCur < iNext; ++iCur )
{
- ie2 = getGeomEdge( maEdgesTwin[iE] );
+ ie2 = getGeomEdge( maEdgesTwin[ iCur.indexMod() ] );
if ( ie2 != edgeIDs2.back() )
{
// opposite VERTEX found
- divisionPnt._iEdge = iE;
+ divisionPnt._iEdge = iCur.indexMod();
divisionPnt._edgeParam = 0;
divPoints.push_back( divisionPnt );
edgeIDs1.push_back( ie1 );
edgeIDs2.push_back( ie2 );
vertexFound = true;
- }
+ }
}
if ( vertexFound )
{
- iPrev = i = --iNext; // not to add a BP in the moddle
+ --iNext;
+ iPrev = iNext; // not to add a BP in the moddle
+ i = iNext.indexMod();
isConcaveV = true;
}
}
else if ( isConcaPrev )
{
// all null-length segments passed, find their beginning
- while ( iPrev-1 >= 0 )
+ while ( maE = iPrev.edgePrev() )
{
- iSeg1 = getBndSegment( maEdges[ iPrev-1 ] );
+ iSeg1 = getBndSegment( maE );
if ( _boundary->isConcaveSegment( edgeIDs1.back(), iSeg1 ))
--iPrev;
else
}
}
- if ( iPrev < i-1 || iNext > i )
+ if ( iPrev.index() < i-1 || iNext.index() > i )
{
// no VERTEX on the opposite EDGE, put the Branch Point in the middle
- double par1 = _params[ iPrev+1 ], par2 = _params[ iNext ];
+ divisionPnt._iEdge = iPrev.indexMod();
+ ++iPrev;
+ double par1 = _params[ iPrev.indexMod() ], par2 = _params[ iNext.indexMod() ];
double midPar = 0.5 * ( par1 + par2 );
- divisionPnt._iEdge = iPrev;
- while ( _params[ divisionPnt._iEdge + 1 ] < midPar )
- ++divisionPnt._iEdge;
+ for ( ; _params[ iPrev.indexMod() ] < midPar; ++iPrev )
+ divisionPnt._iEdge = iPrev.indexMod();
divisionPnt._edgeParam =
- ( _params[ divisionPnt._iEdge + 1 ] - midPar ) /
- ( _params[ divisionPnt._iEdge + 1 ] - _params[ divisionPnt._iEdge ] );
+ ( _params[ iPrev.indexMod() ] - midPar ) /
+ ( _params[ iPrev.indexMod() ] - _params[ divisionPnt._iEdge ] );
divPoints.push_back( divisionPnt );
isConcaveV = true;
}
edgeIDs2.clear();
divPoints.clear();
- edgeIDs1.push_back( getGeomEdge( _maEdges[0] ));
- edgeIDs2.push_back( getGeomEdge( _maEdges[0]->twin() ));
-
std::vector<const TVDEdge*> twins( _maEdges.size() );
for ( size_t i = 0; i < _maEdges.size(); ++i )
twins[i] = _maEdges[i]->twin();
+ BranchIterator maIter ( _maEdges, 0 );
+ BranchIterator twIter ( twins, 0 );
// size_t lastConcaE1 = _boundary.nbEdges();
// size_t lastConcaE2 = _boundary.nbEdges();
+ // if ( maIter._closed ) // closed branch
+ // {
+ // edgeIDs1.push_back( getGeomEdge( _maEdges.back() ));
+ // edgeIDs2.push_back( getGeomEdge( _maEdges.back()->twin() ));
+ // }
+ // else
+ {
+ edgeIDs1.push_back( getGeomEdge( maIter.edge() ));
+ edgeIDs2.push_back( getGeomEdge( twIter.edge() ));
+ }
+
BranchPoint divisionPnt;
divisionPnt._branch = this;
- for ( size_t i = 0; i < _maEdges.size(); ++i )
+ for ( ++maIter, ++twIter; maIter.index() < _maEdges.size(); ++maIter, ++twIter )
{
- size_t ie1 = getGeomEdge( _maEdges[i] );
- size_t ie2 = getGeomEdge( _maEdges[i]->twin() );
-
- if ( edgeIDs1.back() != ie1 || edgeIDs2.back() != ie2 )
+ size_t ie1 = getGeomEdge( maIter.edge() );
+ size_t ie2 = getGeomEdge( twIter.edge() );
+
+ bool otherE1 = ( edgeIDs1.back() != ie1 );
+ bool otherE2 = ( edgeIDs2.back() != ie2 );
+
+ if ( !otherE1 && !otherE2 && maIter._closed )
+ {
+ int iSegPrev1 = getBndSegment( maIter.edgePrev() );
+ int iSegCur1 = getBndSegment( maIter.edge() );
+ otherE1 = Abs( iSegPrev1 - iSegCur1 ) != 1;
+ int iSegPrev2 = getBndSegment( twIter.edgePrev() );
+ int iSegCur2 = getBndSegment( twIter.edge() );
+ otherE2 = Abs( iSegPrev2 - iSegCur2 ) != 1;
+ }
+
+ if ( otherE1 || otherE2 )
{
bool isConcaveV = false;
- if ( edgeIDs1.back() != ie1 && edgeIDs2.back() == ie2 )
+ if ( otherE1 && !otherE2 )
{
- isConcaveV = addDivPntForConcaVertex( edgeIDs1, edgeIDs2, divPoints, _maEdges, twins, i );
+ isConcaveV = addDivPntForConcaVertex( edgeIDs1, edgeIDs2, divPoints,
+ _maEdges, twins, maIter._i );
}
- if ( edgeIDs1.back() == ie1 && edgeIDs2.back() != ie2 )
+ if ( !otherE1 && otherE2 )
{
- isConcaveV = addDivPntForConcaVertex( edgeIDs2, edgeIDs1, divPoints, twins, _maEdges, i );
+ isConcaveV = addDivPntForConcaVertex( edgeIDs2, edgeIDs1, divPoints,
+ twins, _maEdges, maIter._i );
}
if ( isConcaveV )
{
- ie1 = getGeomEdge( _maEdges[i] );
- ie2 = getGeomEdge( _maEdges[i]->twin() );
+ ie1 = getGeomEdge( maIter.edge() );
+ ie2 = getGeomEdge( twIter.edge() );
}
- if (( !isConcaveV ) ||
- ( edgeIDs1.back() != ie1 || edgeIDs2.back() != ie2 ))
+ if ( !isConcaveV || otherE1 || otherE2 )
{
edgeIDs1.push_back( ie1 );
edgeIDs2.push_back( ie2 );
}
if ( divPoints.size() < edgeIDs1.size() - 1 )
{
- divisionPnt._iEdge = i;
+ divisionPnt._iEdge = maIter.index();
divisionPnt._edgeParam = 0;
divPoints.push_back( divisionPnt );
}
