TCollection_AsciiString
SMESH_2smeshpy::ConvertScript(const TCollection_AsciiString& theScript,
Resource_DataMapOfAsciiStringAsciiString& theEntry2AccessorMethod,
- Resource_DataMapOfAsciiStringAsciiString& theObjectNames)
+ Resource_DataMapOfAsciiStringAsciiString& theObjectNames)
{
theGen = new _pyGen( theEntry2AccessorMethod, theObjectNames );
//================================================================================
_pyGen::_pyGen(Resource_DataMapOfAsciiStringAsciiString& theEntry2AccessorMethod,
- Resource_DataMapOfAsciiStringAsciiString& theObjectNames)
+ Resource_DataMapOfAsciiStringAsciiString& theObjectNames)
: _pyObject( new _pyCommand( TPythonDump::SMESHGenName(), 0 )),
myID2AccessorMethod( theEntry2AccessorMethod ),
myObjectNames( theObjectNames )
Handle(_pySubMesh) subMesh = new _pySubMesh( aCommand );
myObjects.insert( make_pair( subMeshID, subMesh ));
}
+
id_mesh->second->Process( aCommand );
return aCommand;
}
if ( !hyp->IsNull() &&
(*hyp)->IsAlgo() &&
theHypothesis->CanBeCreatedBy( (*hyp)->GetAlgoType() ) &&
- (*hyp)->GetGeom() == theGeom &&
+ (*hyp)->GetGeom() == theGeom &&
(*hyp)->GetMesh() == theMesh )
return *hyp;
return 0;
//================================================================================
void _pyGen::setNeighbourCommand( Handle(_pyCommand)& theCmd,
- Handle(_pyCommand)& theOtherCmd,
- const bool theIsAfter )
+ Handle(_pyCommand)& theOtherCmd,
+ const bool theIsAfter )
{
list< Handle(_pyCommand) >::iterator pos;
pos = find( myCommands.begin(), myCommands.end(), theCmd );
while ( myObjectNames.IsBound( aNewID ) );
myObjectNames.Bind( aNewID, myObjectNames.IsBound( theID )
- ? (myObjectNames.Find( theID ) + _pyID( "_" ) + _pyID( index-1 ))
- : _pyID( "A" ) + aNewID );
+ ? (myObjectNames.Find( theID ) + _pyID( "_" ) + _pyID( index-1 ))
+ : _pyID( "A" ) + aNewID );
return aNewID;
}
// remove hyp from myHypos
myHypos.remove( hyp );
}
+ // check for SubMesh order commands
+ else if ( theCommand->GetMethod() == "GetMeshOrder" ||
+ theCommand->GetMethod() == "SetMeshOrder" ) {
+ // In fact arguments and result values does not support complex containers
+ // such as list of list
+ // So, here we parse it manually
+ // GetMeshOrder
+ //for(int ind = 0, n = theCommand->GetNbResultValues();ind<n;ind++) {
+ // Handle(_pySubMesh) subMesh = theGen->FindSubMesh( theCommand->GetResultValue(ind) );
+ // SetMeshOrder
+ //for(int ind = 0, n = theCommand->GetNbArgs();ind<n;ind++) {
+ // Handle(_pySubMesh) subMesh = theGen->FindSubMesh( theCommand->GetArg(ind) );
+ const bool isArg = theCommand->GetMethod() == "SetMeshOrder";
+ const TCollection_AsciiString& cmdStr = theCommand->GetString();
+ int begPos = (/*isArg ? cmdStr.Search( "(" ) :*/ cmdStr.Search( "[" )) + 1;
+ int endPos = (isArg ? cmdStr.Search( ")" ) : cmdStr.Search( "=" )) - 1;
+ if ( begPos != -1 && begPos < endPos && endPos <= cmdStr.Length() ) {
+ TCollection_AsciiString aSubStr = cmdStr.SubString( begPos, endPos );
+ Standard_Integer index = 1;
+ TCollection_AsciiString anIDStr = aSubStr.Token("\t ,[]", index++);
+ while ( !anIDStr.IsEmpty() ) {
+ Handle(_pySubMesh) subMesh = theGen->FindSubMesh( anIDStr );
+ if ( !subMesh.IsNull() )
+ subMesh->Process( theCommand );
+ anIDStr = aSubStr.Token("\t ,[]", index++);
+ }
+ }
+ }
// add accessor method if necessary
else
{
"GetNodeInverseElements","GetShapeID","GetShapeIDForElem","GetElemNbNodes",
"GetElemNode","IsMediumNode","IsMediumNodeOfAnyElem","ElemNbEdges","ElemNbFaces",
"IsPoly","IsQuadratic","BaryCenter","GetHypothesisList", "SetAutoColor", "GetAutoColor",
- "Clear", "ConvertToStandalone"
+ "Clear", "ConvertToStandalone", "GetMeshOrder", "SetMeshOrder"
,"" }; // <- mark of end
sameMethods.Insert( names );
}
if ( algo->IsWrapped() ) {
_pyID localAlgoID = theGen->GenerateNewID( algoID );
TCollection_AsciiString aNewCmdStr = localAlgoID +
- TCollection_AsciiString( " = " ) + theGen->GetID() +
- TCollection_AsciiString( ".CreateHypothesis( \"" ) + algo->GetAlgoType() +
- TCollection_AsciiString( "\" )" );
+ TCollection_AsciiString( " = " ) + theGen->GetID() +
+ TCollection_AsciiString( ".CreateHypothesis( \"" ) + algo->GetAlgoType() +
+ TCollection_AsciiString( "\" )" );
Handle(_pyCommand) newCmd = theGen->AddCommand( aNewCmdStr );
Handle(_pyAlgorithm) newAlgo = Handle(_pyAlgorithm)::DownCast(theGen->FindHyp( localAlgoID ));
if ( !newAlgo.IsNull() ) {
- newAlgo->Assign( algo, this->GetID() );
- newAlgo->SetCreationCmd( newCmd );
- algo = newAlgo;
- // set algorithm creation
- theGen->SetCommandBefore( newCmd, addCmd );
+ newAlgo->Assign( algo, this->GetID() );
+ newAlgo->SetCreationCmd( newCmd );
+ algo = newAlgo;
+ // set algorithm creation
+ theGen->SetCommandBefore( newCmd, addCmd );
}
else
- newCmd->Clear();
+ newCmd->Clear();
}
_pyID geom = addCmd->GetArg( 1 );
bool isLocalAlgo = ( geom != GetGeom() );
addCmd->SetArg( addCmd->GetNbArgs() + 1,
TCollection_AsciiString( "geom=" ) + geom );
// sm = mesh.GetSubMesh(geom, name) --> sm = ALGO.GetSubMesh()
- list < Handle(_pySubMesh) >::iterator smIt;
+ list < Handle(_pySubMesh) >::iterator smIt;
for ( smIt = mySubmeshes.begin(); smIt != mySubmeshes.end(); ++smIt ) {
- Handle(_pySubMesh) subMesh = *smIt;
+ Handle(_pySubMesh) subMesh = *smIt;
Handle(_pyCommand) subCmd = subMesh->GetCreationCmd();
if ( geom == subCmd->GetArg( 1 )) {
subCmd->SetObject( algo->GetID() );
subCmd->RemoveArgs();
- subMesh->SetCreator( algo );
+ subMesh->SetCreator( algo );
}
}
}
static TStringSet sameMethods;
if ( sameMethods.empty() ) {
const char * names[] = {
- "RemoveElements","RemoveNodes","AddNode","AddEdge","AddFace","AddPolygonalFace",
+ "RemoveElements","RemoveNodes","AddNode","Add0DElement","AddEdge","AddFace","AddPolygonalFace",
"AddVolume","AddPolyhedralVolume","AddPolyhedralVolumeByFaces","MoveNode", "MoveClosestNodeToPoint",
"InverseDiag","DeleteDiag","Reorient","ReorientObject","TriToQuad","SplitQuad","SplitQuadObject",
"BestSplit","Smooth","SmoothObject","SmoothParametric","SmoothParametricObject",
}
else if ( hypType == "QuadranglePreference" ) {
hyp->SetConvMethodAndType( "QuadranglePreference", "Quadrangle_2D");
- hyp->SetConvMethodAndType( "QuadranglePreference", "NETGEN_2D_ONLY");
+ hyp->SetConvMethodAndType( "SetQuadAllowed", "NETGEN_2D_ONLY");
}
else if ( hypType == "TrianglePreference" ) {
hyp->SetConvMethodAndType( "TrianglePreference", "Quadrangle_2D");
- }
+ }
// BLSURF ----------
else if ( hypType == "BLSURF" ) {
algo->SetConvMethodAndType( "Triangle", hypType.ToCString());
//================================================================================
void _pyHypothesis::Assign( const Handle(_pyHypothesis)& theOther,
- const _pyID& theMesh )
+ const _pyID& theMesh )
{
myIsWrapped = false;
myMesh = theMesh;
int nb1 = 0; // number of ' character at the left of =
int nb2 = 0; // number of " character at the left of =
for ( int i = 1; i < begPos-1; i++ ) {
- if ( myString.Value( i )=='\'' )
- nb1 += 1;
- else if ( myString.Value( i )=='"' )
- nb2 += 1;
+ if ( myString.Value( i )=='\'' )
+ nb1 += 1;
+ else if ( myString.Value( i )=='"' )
+ nb2 += 1;
}
// if number of ' or " is not divisible by 2,
// then get an object at the start of the command
if ( nb1 % 2 != 0 || nb2 % 2 != 0 )
- begPos = 1;
+ begPos = 1;
}
myObj = GetWord( myString, begPos, true );
// check if object is complex,
while ( begPos != EMPTY ) {
begPos += prevLen;
if( myString.Value( begPos ) == '(' )
- nbNestings++;
+ nbNestings++;
// check if we are looking at the closing parenthesis
while ( begPos <= Length() && isspace( myString.Value( begPos )))
++begPos;
if ( begPos > Length() )
break;
if ( myString.Value( begPos ) == ')' ) {
- nbNestings--;
- if( nbNestings == 0 )
- break;
+ nbNestings--;
+ if( nbNestings == 0 )
+ break;
}
myArgs.Append( GetWord( myString, begPos, true, true ));
SetBegPos( ARG1_IND + i, begPos );
