// See http://www.salome-platform.org/ or email : webmaster.salome@opencascade.com
//
-#include "HYDROData_CalculationCase.h"
+#ifdef WIN32
+ #pragma warning ( disable: 4251 )
+#endif
+#include "HYDROData_CalculationCase.h"
#include "HYDROData_ArtificialObject.h"
#include "HYDROData_IAltitudeObject.h"
#include "HYDROData_Document.h"
#include <BRepBuilderAPI_MakeVertex.hxx>
#endif
+#ifdef WIN32
+ #pragma warning ( default: 4251 )
+#endif
+
#define EXPORT_NAME "HYDRO_" + GetName()
+#include <SALOME_NamingService.hxx>
+#include <SALOME_LifeCycleCORBA.hxx>
+
+#define _DEVDEBUG_
+#include "HYDRO_trace.hxx"
+
IMPLEMENT_STANDARD_HANDLE(HYDROData_CalculationCase, HYDROData_Entity)
IMPLEMENT_STANDARD_RTTIEXT(HYDROData_CalculationCase, HYDROData_Entity)
QString aCalculName = GetObjPyName();
- AssignmentMode aMode = GetAssignmentMode();
+ AssignmentMode aMode = GetAssignmentMode();
QString aModeStr = aMode==MANUAL ? "HYDROData_CalculationCase.MANUAL" : "HYDROData_CalculationCase.AUTOMATIC";
aResList << QString( "%0.SetAssignmentMode( %1 )" ).arg( aCalculName ).arg( aModeStr );
+ AssignmentMode aModeLC = GetAssignmentLandCoverMode();
+ QString aModeLCStr = aModeLC==MANUAL ? "HYDROData_CalculationCase.MANUAL" : "HYDROData_CalculationCase.AUTOMATIC";
+ aResList << QString( "%0.SetAssignmentLandCoverMode( %1 )" ).arg( aCalculName ).arg( aModeLCStr );
+
HYDROData_SequenceOfObjects aGeomObjects = GetGeometryObjects();
HYDROData_SequenceOfObjects::Iterator anIter( aGeomObjects );
for ( ; anIter.More(); anIter.Next() )
if( aMode==AUTOMATIC )
DumpRulesToPython( aCalculName, aResList );
+ if( aModeLC==AUTOMATIC )
+ DumpLandCoverRulesToPython( aCalculName, aResList );
aResList << QString( "" );
aResList << "# Start the algorithm of the partition and assignment";
{
// Now we restore the
// - regions and zones order
- DumpRegionsToPython( aResList, theTreatedObjects, GetRegions( false ) );
+ DumpRegionsToPython( aResList, theTreatedObjects, GetRegions( false ) );
+ }
+
+ if( aModeLC==MANUAL )
+ {
+ // Now we restore the
// - land cover regions and zones order
DumpRegionsToPython( aResList, theTreatedObjects, GetRegions( true ) );
}
switch( GetAssignmentMode() )
{
case MANUAL:
- CreateRegionsDef( aDocument, aZonesList, false );
+ CreateRegionsDef( aDocument, aZonesList, false );
+ break;
+ case AUTOMATIC:
+ CreateRegionsAuto( aDocument, aZonesList, false );
+ break;
+ }
+
+ switch( GetAssignmentLandCoverMode() )
+ {
+ case MANUAL:
CreateRegionsDef( aDocument, aLandCoverZonesList, true );
break;
case AUTOMATIC:
- CreateRegionsAuto( aDocument, aZonesList, false );
CreateRegionsAuto( aDocument, aLandCoverZonesList, true );
break;
}
+
CreateEdgeGroupsDef( aDocument, anEdgesList );
}
return;
HYDROData_SequenceOfObjects aRegions = GetRegions( false );
- aRegions.Append( GetRegions( true ) );
+ HYDROData_SequenceOfObjects aRegionsLC = GetRegions( true );
+ aRegions.Append( aRegionsLC );
HYDROData_SequenceOfObjects::Iterator anIter( aRegions );
for ( ; anIter.More(); anIter.Next() )
Handle(HYDROData_Zone) aZone = GetZoneFromPoint( thePoint, false );
if ( !aZone.IsNull() )
{
+ //DEBTRACE("GetAltitudeForPoint Region " << theRegion->GetName().toStdString() << " Zone " << aZone->GetName().toStdString());
Handle(HYDROData_Region) aRefRegion = Handle(HYDROData_Region)::DownCast( aZone->GetFatherObject() );
if ( IsEqual( aRefRegion, theRegion ) )
aResAltitude = GetAltitudeForPoint( thePoint, aZone );
+ else
+ {
+ DEBTRACE("GetAltitudeForPoint Region " << aRefRegion->GetName().toStdString() << " Zone " << aZone->GetName().toStdString() << " ---------------------------");
+ aResAltitude = GetAltitudeForPoint( thePoint, aZone );
+ }
}
+ else
+ {
+ DEBTRACE(" --- GetAltitudeForPoint No Zone ---");
+ }
return aResAltitude;
}
double HYDROData_CalculationCase::GetAltitudeForPoint( const gp_XY& thePoint,
const Handle(HYDROData_Zone)& theZone ) const
{
+ //DEBTRACE("GetAltitudeForPoint Zone " << theZone->GetName().toStdString());
double aResAltitude = HYDROData_IAltitudeObject::GetInvalidAltitude();
if ( theZone.IsNull() )
return aResAltitude;
const NCollection_Sequence<gp_XY>& thePoints,
const Handle(HYDROData_Region)& theRegion ) const
{
+ //DEBTRACE("HYDROData_CalculationCase::GetAltitudesForPoints " << theRegion->GetName().toStdString());
NCollection_Sequence<double> aResSeq;
for ( int i = 1, n = thePoints.Length(); i <= n; ++i )
GEOM::GEOM_Gen_var aGEOMEngine = HYDROData_GeomTool::GetGeomGen();
SALOMEDS::Study_var aDSStudy = HYDROData_GeomTool::GetStudyByID( theStudyId );
- QString aGeomObjEntry;
- bool isOK = Export( aGEOMEngine, aDSStudy, aGeomObjEntry );
+ QString aGeomObjEntry, anErrorMsg;
+ bool isOK = Export( aGEOMEngine, aDSStudy, aGeomObjEntry, anErrorMsg );
return isOK ? aGeomObjEntry : QString();
}
bool HYDROData_CalculationCase::Export( GEOM::GEOM_Gen_var theGeomEngine,
SALOMEDS::Study_ptr theStudy,
- QString& theGeomObjEntry ) const
+ QString& theGeomObjEntry,
+ QString& theErrorMsg ) const
{
HYDROData_ShapesGroup::SeqOfGroupsDefs aSeqOfGroupsDefs;
}
// Get faces
+ bool isAllNotSubmersible = true;
TopTools_ListOfShape aFaces;
HYDROData_SequenceOfObjects aCaseRegions = GetRegions( false );
HYDROData_SequenceOfObjects::Iterator aRegionIter( aCaseRegions );
Handle(HYDROData_Region)::DownCast( aRegionIter.Value() );
if( aRegion.IsNull() || !aRegion->IsSubmersible() )
continue;
+
+ if ( isAllNotSubmersible )
+ isAllNotSubmersible = false;
TopoDS_Shape aRegionShape = aRegion->GetShape( &aSeqOfGroupsDefs );
aFaces.Append( aRegionShape );
}
- return Export( theGeomEngine, theStudy, aFaces, aSeqOfGroupsDefs, theGeomObjEntry );
+ bool aRes = false;
+
+ if ( aCaseRegions.IsEmpty() ) {
+ theErrorMsg = QString("the list of regions is empty.");
+ } else if ( isAllNotSubmersible ) {
+ theErrorMsg = QString("there are no submersible regions.");
+ } else {
+ aRes = Export( theGeomEngine, theStudy, aFaces, aSeqOfGroupsDefs, theGeomObjEntry );;
+ }
+
+ return aRes;
}
bool HYDROData_CalculationCase::Export( GEOM::GEOM_Gen_var theGeomEngine,
// Publish the sewed shape
QString aName = EXPORT_NAME;
GEOM::GEOM_Object_ptr aMainShape =
- publishShapeInGEOM( theGeomEngine, theStudy, aSewedShape, aName, theGeomObjEntry );
+ HYDROData_GeomTool::publishShapeInGEOM( theGeomEngine, theStudy, aSewedShape, aName, theGeomObjEntry );
if ( aMainShape->_is_nil() )
return false;
return true;
}
-GEOM::GEOM_Object_ptr HYDROData_CalculationCase::publishShapeInGEOM(
- GEOM::GEOM_Gen_var theGeomEngine, SALOMEDS::Study_ptr theStudy,
- const TopoDS_Shape& theShape, const QString& theName,
- QString& theGeomObjEntry ) const
-{
- theGeomObjEntry = "";
- GEOM::GEOM_Object_var aGeomObj;
-
- if ( theGeomEngine->_is_nil() || theStudy->_is_nil() ||
- theShape.IsNull() ) {
- return aGeomObj._retn();
- }
-
- std::ostringstream aStreamShape;
- // Write TopoDS_Shape in ASCII format to the stream
- BRepTools::Write( theShape, aStreamShape );
- // Returns the number of bytes that have been stored in the stream's buffer.
- int aSize = aStreamShape.str().size();
- // Allocate octect buffer of required size
- CORBA::Octet* anOctetBuf = SALOMEDS::TMPFile::allocbuf( aSize );
- // Copy ostrstream content to the octect buffer
- memcpy( anOctetBuf, aStreamShape.str().c_str(), aSize );
- // Create TMPFile
- SALOMEDS::TMPFile_var aSeqFile = new SALOMEDS::TMPFile( aSize, aSize, anOctetBuf, 1 );
-
- // Restore shape from the stream and get the GEOM object
- GEOM::GEOM_IInsertOperations_var anInsOp = theGeomEngine->GetIInsertOperations( theStudy->StudyId() );
- aGeomObj = anInsOp->RestoreShape( aSeqFile );
-
- // Puplish the GEOM object
- if ( !aGeomObj->_is_nil() ) {
- QString aName = HYDROData_GeomTool::GetFreeName( theStudy, theName );
-
- SALOMEDS::SObject_var aResultSO =
- theGeomEngine->PublishInStudy( theStudy, SALOMEDS::SObject::_nil(),
- aGeomObj, qPrintable( aName ) );
- if ( aResultSO->_is_nil() ) {
- aGeomObj = GEOM::GEOM_Object::_nil();
- }
- else
- theGeomObjEntry = aResultSO->GetID();
- }
-
- return aGeomObj._retn();
-}
-
void HYDROData_CalculationCase::ClearRules( HYDROData_CalculationCase::DataTag theDataTag,
const bool theIsSetToUpdate )
{
return HYDROData_PriorityQueue::DumpRules( aRulesLab );
}
+QString HYDROData_CalculationCase::DumpLandCoverRules() const
+{
+ TDF_Label aRulesLab = myLab.FindChild( DataTag_CustomLandCoverRules );
+ return HYDROData_PriorityQueue::DumpRules( aRulesLab );
+}
+
void HYDROData_CalculationCase::SetAssignmentMode( AssignmentMode theMode )
{
TDF_Label aModeLab = myLab.FindChild( DataTag_AssignmentMode );
HYDROData_PriorityQueue::DumpRulesToPython( aRulesLab, theCalcCaseName, theScript );
}
+void HYDROData_CalculationCase::DumpLandCoverRulesToPython( const QString& theCalcCaseName,
+ QStringList& theScript ) const
+{
+ TDF_Label aRulesLab = myLab.FindChild( DataTag_CustomLandCoverRules );
+ HYDROData_PriorityQueue::DumpRulesToPython( aRulesLab, theCalcCaseName, theScript );
+}
+
HYDROData_Warning HYDROData_CalculationCase::GetLastWarning() const
{
return myLastWarning;
