+// Copyright (C) 2014-2015 EDF-R&D
+// This library is free software; you can redistribute it and/or
+// modify it under the terms of the GNU Lesser General Public
+// License as published by the Free Software Foundation; either
+// version 2.1 of the License, or (at your option) any later version.
+//
+// This library is distributed in the hope that it will be useful,
+// but WITHOUT ANY WARRANTY; without even the implied warranty of
+// MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the GNU
+// Lesser General Public License for more details.
+//
+// You should have received a copy of the GNU Lesser General Public
+// License along with this library; if not, write to the Free Software
+// Foundation, Inc., 59 Temple Place, Suite 330, Boston, MA 02111-1307 USA
+//
+// See http://www.salome-platform.org/ or email : webmaster.salome@opencascade.com
+//
#include "HYDROData_Image.h"
#include "HYDROData_Document.h"
#include "HYDROData_Lambert93.h"
-#include "HYDROData_Tool.h"
#include "HYDROData_OperationsFactory.h"
+#include "HYDROData_Tool.h"
#include <TDataStd_RealArray.hxx>
#include <TDataStd_ByteArray.hxx>
#include <TDataStd_UAttribute.hxx>
#include <TDataStd_AsciiString.hxx>
+#include <NCSDefs.h>
+#include <NCSFile.h>
+
+#ifdef WIN32
+ #pragma warning ( disable: 4251 )
+#endif
+
#include <ImageComposer_Operator.h>
#include <ImageComposer_MetaTypes.h>
#include <QStringList>
+#include <QFile>
+#include <QFileInfo>
-static const Standard_GUID GUID_SELF_SPLITTED("997995aa-5c19-40bf-9a60-ab4b70ad04d8");
+#ifdef WIN32
+ #pragma warning ( default: 4251 )
+#endif
+
+static const Standard_GUID GUID_SELF_SPLIT("997995aa-5c19-40bf-9a60-ab4b70ad04d8");
static const Standard_GUID GUID_HAS_LOCAL_POINTS("FD8841AA-FC44-42fa-B6A7-0F682CCC6F27");
static const Standard_GUID GUID_HAS_GLOBAL_POINTS("330D0E81-742D-4ea3-92D4-484877CFA7C1");
-#define PYTHON_IMAGE_ID "KIND_IMAGE"
-
-IMPLEMENT_STANDARD_HANDLE(HYDROData_Image, HYDROData_Entity)
IMPLEMENT_STANDARD_RTTIEXT(HYDROData_Image, HYDROData_Entity)
HYDROData_Image::HYDROData_Image()
-: HYDROData_Entity()
+: HYDROData_Entity( Geom_2d )
{
}
{
}
-QStringList HYDROData_Image::DumpToPython( MapOfTreatedObjects& theTreatedObjects ) const
+QStringList HYDROData_Image::DumpToPython( const QString& thePyScriptPath,
+ MapOfTreatedObjects& theTreatedObjects ) const
{
- QStringList aResList;
-
- Handle(HYDROData_Document) aDocument = HYDROData_Document::Document( myLab );
- if ( aDocument.IsNull() )
- return aResList;
-
- QString aDocName = aDocument->GetDocPyName();
- QString anImageName = GetName();
-
- aResList << QString( "%1 = %2.CreateObject( %3 );" )
- .arg( anImageName ).arg( aDocName ).arg( PYTHON_IMAGE_ID );
- aResList << QString( "%1.SetName( \"%2\" );" )
- .arg( anImageName ).arg( anImageName );
+ QStringList aResList = dumpObjectCreation( theTreatedObjects );
+ QString anImageName = GetObjPyName();
QString aFilePath = GetFilePath();
if ( !aFilePath.isEmpty() )
{
aResList << QString( "" );
- aResList << QString( "%1.LoadImage( \"%2\" );" )
+ aResList << QString( "if not(%1.LoadImage( \"%2\" )):" )
.arg( anImageName ).arg( aFilePath );
+ aResList << QString( " raise ValueError('problem while loading image')" );
aResList << QString( "" );
// Dump transformation points for image
- QString aGap = QString().fill( ' ', anImageName.size() + 16 );
-
bool anIsByTwoPoints = IsByTwoPoints();
QPoint aLocalPointA, aLocalPointB, aLocalPointC;
if ( GetLocalPoints( aLocalPointA, aLocalPointB, aLocalPointC ) )
{
+ QString aGap = QString().fill( ' ', anImageName.size() + 17 );
+
aResList << QString( "%1.SetLocalPoints( QPoint( %2, %3 )," )
.arg( anImageName ).arg( aLocalPointA.x() ).arg( aLocalPointA.y() );
- aResList << QString( aGap + "QPoint( %1, %2 )," )
+ aResList << QString( aGap + "QPoint( %1, %2 )" )
.arg( aLocalPointB.x() ).arg( aLocalPointB.y() );
- aResList << QString( aGap + "QPoint( %1, %2 ) );" )
- .arg( aLocalPointC.x() ).arg( aLocalPointC.y() );
+ if ( !anIsByTwoPoints )
+ {
+ aResList.last().append( "," );
+ aResList << QString( aGap + "QPoint( %1, %2 ) )" )
+ .arg( aLocalPointC.x() ).arg( aLocalPointC.y() );
+ }
+ else
+ {
+ aResList.last().append( " )" );
+ }
aResList << QString( "" );
}
QPointF aTrsfPointA, aTrsfPointB, aTrsfPointC;
if ( GetGlobalPoints( aTransformationMode, aTrsfPointA, aTrsfPointB, aTrsfPointC ) )
{
+ QString aGap = QString().fill( ' ', anImageName.size() + 18 );
+
aResList << QString( "%1.SetGlobalPoints( %2," )
.arg( anImageName ).arg( aTransformationMode );
aResList << QString( aGap + "QPointF( %1, %2 )," )
- .arg( aTrsfPointA.x() ).arg( aTrsfPointA.y() );
- aResList << QString( aGap + "QPointF( %1, %2 )," )
- .arg( aTrsfPointB.x() ).arg( aTrsfPointB.y() );
- aResList << QString( aGap + "QPointF( %1, %2 ) );" )
- .arg( aTrsfPointC.x() ).arg( aTrsfPointC.y() );
+ .arg( aTrsfPointA.x(), 0, 'f', 3 ).arg( aTrsfPointA.y(), 0, 'f', 3 );
+ aResList << QString( aGap + "QPointF( %1, %2 )" )
+ .arg( aTrsfPointB.x(), 0, 'f', 3 ).arg( aTrsfPointB.y(), 0, 'f', 3 );
+ if ( !anIsByTwoPoints )
+ {
+ aResList.last().append( "," );
+ aResList << QString( aGap + "QPointF( %1, %2 ) )" )
+ .arg( aTrsfPointC.x(), 0, 'f', 3 ).arg( aTrsfPointC.y(), 0, 'f', 3 );
+ }
+ else
+ {
+ aResList.last().append( " )" );
+ }
if ( aTransformationMode == ReferenceImage )
{
Handle(HYDROData_Image) aRefImg = GetTrsfReferenceImage();
- setPythonReferenceObject( theTreatedObjects, aResList, aRefImg, "SetTrsfReferenceImage" );
+ setPythonReferenceObject( thePyScriptPath, theTreatedObjects, aResList, aRefImg, "SetTrsfReferenceImage" );
}
}
}
{
aResList << QString( "" );
- aResList << QString( "%1.SetOperatorName( \"%2\" );" )
+ aResList << QString( "%1.SetOperatorName( \"%2\" )" )
.arg( anImageName ).arg( anOperatorName );
ImageComposer_Operator* anImageOp =
aResList << anOpArgs;
aResList << QString( "" );
- aResList << QString( "%1.SetArgs( %2 );" )
+ aResList << QString( "%1.SetArgs( %2 )" )
.arg( anImageName ).arg( anOpArgsArrayName );
}
}
for ( int i = 0; i < aNbReferences; ++i )
{
Handle(HYDROData_Image) aRefImg = Handle(HYDROData_Image)::DownCast( Reference( i ) );
- setPythonReferenceObject( theTreatedObjects, aResList, aRefImg, "AppendReference" );
+ setPythonReferenceObject( thePyScriptPath, theTreatedObjects, aResList, aRefImg, "AppendReference" );
}
}
-
- // Necessary to update image in case of composed operator
- aResList << QString( "" );
- aResList << QString( "%1.Update();" ).arg( anImageName );
}
+ aResList << QString( "" );
+ aResList << QString( "%1.Update()" ).arg( anImageName );
+
return aResList;
}
void HYDROData_Image::Update()
{
+ bool anIsToUpdate = IsMustBeUpdated( Geom_2d );
+
+ HYDROData_Entity::Update();
+
+ if ( !anIsToUpdate )
+ return;
+
HYDROData_OperationsFactory* aFactory = HYDROData_OperationsFactory::Factory();
ImageComposer_Operator* anOp = aFactory->Operator( OperatorName() );
if ( anOp ) // Update image if there is an operation
{
// Fill by arguments and process the operation
+ anOp->setBinArgs( Args() );
+
QVariant anObj1, anObj2;
int aNbReferences = NbReferences();
UpdateTrsf();
}
- Handle(HYDROData_Document) aDocument = HYDROData_Document::Document( myLab );
- if ( !aDocument.IsNull() )
- {
- // Change the states of this and all depended images
- SetToUpdate( true );
- HYDROData_Tool::SetMustBeUpdatedImages( aDocument );
- SetToUpdate( false );
- }
+ ClearChanged();
+}
+
+bool HYDROData_Image::IsHas2dPrs() const
+{
+ return true;
}
QVariant HYDROData_Image::GetDataVariant()
void HYDROData_Image::SetImage(const QImage& theImage)
{
- if (theImage.isNull()) {
+ if ( theImage.isNull() )
+ {
// for empty image remove all previously stored attributes
myLab.ForgetAttribute(TDataStd_IntegerArray::GetID());
myLab.ForgetAttribute(TDataStd_ByteArray::GetID());
- return;
}
- // store width, height, bytes per line and format in integer array
- Handle(TDataStd_IntegerArray) aParams;
- if (!myLab.FindAttribute(TDataStd_IntegerArray::GetID(), aParams)) {
- aParams = TDataStd_IntegerArray::Set(myLab, 1, 4);
+ else
+ {
+ QImage anImage;
+
+ // convert 8-bits images
+ if ( theImage.format() == QImage::Format_Indexed8 ) {
+ anImage = theImage.convertToFormat( QImage::Format_RGB32 );
+ } else {
+ anImage = theImage;
+ }
+
+ // store width, height, bytes per line and format in integer array
+ Handle(TDataStd_IntegerArray) aParams;
+ if (!myLab.FindAttribute(TDataStd_IntegerArray::GetID(), aParams)) {
+ aParams = TDataStd_IntegerArray::Set(myLab, 1, 4);
+ }
+ aParams->SetValue(1, anImage.width());
+ aParams->SetValue(2, anImage.height());
+ aParams->SetValue(3, anImage.bytesPerLine());
+ aParams->SetValue(4, (int)(anImage.format()));
+ // store data of image in byte array
+ const char* aData = (const char*)(anImage.bits());
+ SaveByteArray(0, aData, anImage.byteCount());
}
- aParams->SetValue(1, theImage.width());
- aParams->SetValue(2, theImage.height());
- aParams->SetValue(3, theImage.bytesPerLine());
- aParams->SetValue(4, (int)(theImage.format()));
- // store data of image in byte array
- const char* aData = (const char*)(theImage.bits());
- SaveByteArray(0, aData, theImage.byteCount());
+
+ Changed( Geom_2d );
}
-bool HYDROData_Image::LoadImage(const QString& theFilePath)
+bool HYDROData_Image::LoadImage( const QString& theFilePath )
{
- QImage anImage( theFilePath );
+ QFileInfo aFI(theFilePath);
+ QImage anImage;
+ HYDROData_Image::ECW_FileInfo* theECWInfo;
+ if (aFI.suffix().toLower() == "ecw")
+ {
+ theECWInfo = new HYDROData_Image::ECW_FileInfo;
+ HYDROData_Image::OpenECW(theFilePath.toLatin1().data(), anImage, theECWInfo);
+ }
+ else
+ anImage = QImage(theFilePath);
SetImage( anImage );
+ SetFilePath( theFilePath );
+ return !anImage.isNull();
+}
+
+bool HYDROData_Image::OpenECW(char* theFileName, QImage& theImage, ECW_FileInfo* theECWInfo)
+{
+ NCSFileView *pNCSFileView;
+ NCSFileViewFileInfo *pNCSFileInfo;
+ NCSError eError = NCS_SUCCESS;
+ UINT32 band, nBands;
+ UINT32 XSize, YSize;
+ NCSecwInit();
+
+ eError = NCScbmOpenFileView(theFileName, &pNCSFileView, NULL);
+ if(eError != NCS_SUCCESS)
+ return false;
+
+ eError = NCScbmGetViewFileInfo(pNCSFileView, &pNCSFileInfo);
+ if(eError != NCS_SUCCESS)
+ return false;
+
+ XSize = pNCSFileInfo->nSizeX;
+ YSize = pNCSFileInfo->nSizeY;
+ nBands = pNCSFileInfo->nBands;
+ if (theECWInfo)
+ {
+ //ECW_CellUnits myCellSizeUnits;
+ CellSizeUnits aCellUnits = pNCSFileInfo->eCellSizeUnits;
+ if (aCellUnits == ECW_CELL_UNITS_METERS)
+ theECWInfo->myCellSizeUnits = ECW_CellUnits_Meters;
+ else if (aCellUnits == ECW_CELL_UNITS_DEGREES)
+ theECWInfo->myCellSizeUnits = ECW_CellUnits_Deg;
+ else if (aCellUnits == ECW_CELL_UNITS_FEET)
+ theECWInfo->myCellSizeUnits = ECW_CellUnits_Feet;
+ else
+ theECWInfo->myCellSizeUnits = ECW_CellUnits_Unknown;
+ theECWInfo->myCellIncrementX = pNCSFileInfo->fCellIncrementX;
+ theECWInfo->myCellIncrementY = pNCSFileInfo->fCellIncrementY;
+ theECWInfo->myOriginX = pNCSFileInfo->fOriginX;
+ theECWInfo->myOriginY = pNCSFileInfo->fOriginY;
+ theECWInfo->myXSize = pNCSFileInfo->nSizeX;
+ theECWInfo->myYSize = pNCSFileInfo->nSizeY;
+ }
+
+ std::vector<UINT32> band_list(nBands);
+ for( band = 0; band < nBands; band++ )
+ band_list[band] = band;
+
+ eError = NCScbmSetFileView(pNCSFileView, nBands, &band_list[0], 0, 0, XSize - 1, YSize - 1, XSize, YSize); //view an image into the original size
+
+ if(eError != NCS_SUCCESS)
+ {
+ NCScbmCloseFileView(pNCSFileView);
+ return false;
+ }
+
+ UINT8 *pRGBTriplets;
+ pRGBTriplets = (UINT8 *) malloc(XSize*3);
+
+ QImage anImage(XSize, YSize, QImage::Format_RGB32);
+
+ for(UINT32 line = 0; line < YSize; line++)
+ {
+ NCSEcwReadStatus eStatus;
+ eStatus = NCScbmReadViewLineRGB(pNCSFileView, pRGBTriplets);
+ if(eStatus == NCSECW_READ_OK)
+ {
+ QRgb* crp = (QRgb*)anImage.scanLine(line);
+ for(UINT32 j = 0; j < XSize; j++)
+ {
+ QRgb val = qRgb((int)pRGBTriplets[j*3],(int)pRGBTriplets[j*3+1],(int)pRGBTriplets[j*3+2]);
+ memcpy((void*)(crp+j), &val, sizeof(QRgb));
+ }
+ }
+ else
+ {
+ free(pRGBTriplets);
+ NCScbmCloseFileView(pNCSFileView);
+ return false;
+ }
+ }
+
+ free(pRGBTriplets);
+ NCScbmCloseFileView(pNCSFileView);
+ theImage = anImage;
+ return true;
+}
+
+bool HYDROData_Image::LoadImageECW( const QString& theFilePath )
+{
+ QImage anImage;
+ if (HYDROData_Image::OpenECW(theFilePath.toLatin1().data(), anImage, NULL))
+ {
+ SetImage( anImage );
+ SetFilePath( theFilePath );
+ }
return !anImage.isNull();
}
return aResult;
}
-void HYDROData_Image::SetFilePath(const QString& theFilePath)
+void HYDROData_Image::SetFilePath( const QString& theFilePath )
{
TCollection_AsciiString anAsciiStr( theFilePath.toStdString().c_str() );
TDataStd_AsciiString::Set( myLab.FindChild( DataTag_FilePath ), anAsciiStr );
+
+ Changed( Geom_2d );
}
QString HYDROData_Image::GetFilePath() const
anArray->SetValue(7, theTrsf.m31());
anArray->SetValue(8, theTrsf.m32());
anArray->SetValue(9, theTrsf.m33());
+
+ Changed( Geom_2d );
}
QTransform HYDROData_Image::Trsf() const
ClearReferences();
SetOperatorName( "" );
SetArgs( "" );
- SetIsSelfSplitted( false );
+ SetIsSelfSplit( false );
}
- SetToUpdate( false );
-
bool anIsByTwoPoints = IsByTwoPoints();
QImage anImage = Image();
if ( anImage.isNull() )
+ {
+ ClearChanged();
return;
+ }
// Set local points to default position
QPoint aLocalPointA = QPoint( 0, 0 );
QPointF( aTransform.map( aLocalPointC ) );
SetGlobalPoints( ManualCartesian, aTrsfPointA, aTrsfPointB, aTrsfPointC );
+
+ ClearChanged();
}
void HYDROData_Image::SetLocalPoints( const QPoint& thePointA,
if ( theIsUpdate )
UpdateTrsf();
+
+ Changed( Geom_2d );
}
bool HYDROData_Image::GetLocalPoints( QPoint& thePointA,
if ( theIsUpdate )
UpdateTrsf();
- /*
- if( anIsRefImage )
- {
- aCPointA = QPointF( aTransform.map( aPointA ) );
- aCPointB = QPointF( aTransform.map( aPointB ) );
- aCPointC = QPointF( aTransform.map( aPointC ) );
-
- // compute Lambert93 points
- xca = aCPointA.x();
- yca = aCPointA.y();
- xcb = aCPointB.x();
- ycb = aCPointB.y();
- xcc = aCPointC.x();
- ycc = aCPointC.y();
-
- double xla = 0, yla = 0, xlb = 0, ylb = 0, xlc = 0, ylc = 0;
- HYDROData_Lambert93::toGeo( xca, yca, yla, xla );
- HYDROData_Lambert93::toGeo( xcb, ycb, ylb, xlb );
- HYDROData_Lambert93::toGeo( xcc, ycc, ylc, xlc );
-
- aLPointA = QPointF( xla * 3600.0, yla * 3600.0 ); // convert degrees to seconds
- aLPointB = QPointF( xlb * 3600.0, ylb * 3600.0 ); // convert degrees to seconds
- aLPointC = QPointF( xlc * 3600.0, ylc * 3600.0 ); // convert degrees to seconds
- }
- */
+ Changed( Geom_2d );
}
bool HYDROData_Image::GetGlobalPoints( TransformationMode& theMode,
return true;
}
+bool HYDROData_Image::SetGlobalPointsFromFile( const QString& theFileName )
+{
+ bool aRes = false;
+
+ // Try to open the file
+ QFile aFile( theFileName );
+ if ( !aFile.exists() || !aFile.open( QIODevice::ReadOnly ) ) {
+ return aRes;
+ }
+
+ QPointF aPointA, aPointB;
+ double aXmin, anYmin, aXmax, anYmax;
+ aXmin = anYmin = aXmax = anYmax = -1;
+
+ while ( !aFile.atEnd() &&
+ ( aXmin < 0 || anYmin < 0 || aXmax < 0 || anYmax < 0 ) ) {
+ // Read line
+ QString aLine = aFile.readLine().simplified();
+ aLine.replace( " ", "" );
+ if ( aLine.isEmpty() ) {
+ continue;
+ }
+
+ // Try to read double value after ":"
+ bool isDoubleOk = false;
+ double aDoubleValue = -1;
+ QStringList aValues = aLine.split( ":", QString::SkipEmptyParts );
+ if ( aValues.count() == 2 ) {
+ aDoubleValue = aValues.last().toDouble( &isDoubleOk );
+ }
+
+ // Check the result
+ if ( !isDoubleOk ||
+ HYDROData_Tool::IsNan( aDoubleValue ) ||
+ HYDROData_Tool::IsInf( aDoubleValue ) ) {
+ continue;
+ }
+
+ // Set the value
+ if ( aLine.startsWith( "Xminimum" ) ) {
+ aXmin = aDoubleValue;
+ }
+ else if ( aLine.startsWith( "Yminimum" ) ) {
+ anYmin = aDoubleValue;
+ }
+ else if ( aLine.startsWith( "Xmaximum" ) ) {
+ aXmax = aDoubleValue;
+ }
+ else if ( aLine.startsWith( "Ymaximum" ) ) {
+ anYmax = aDoubleValue;
+ }
+ }
+
+ // Close the file
+ aFile.close();
+
+ if ( aXmin >= 0 && anYmin >= 0 ) {
+ aPointA.setX( aXmin );
+ aPointA.setY( anYmin );
+ }
+
+ if ( aXmax >= 0 && anYmax >= 0 ) {
+ aPointB.setX( aXmax );
+ aPointB.setY( anYmax );
+ }
+
+ if ( !aPointA.isNull() && !aPointB.isNull() ) {
+ SetGlobalPoints( ManualCartesian, aPointA, aPointB );
+ aRes = true;
+ }
+
+ return aRes;
+}
+
bool HYDROData_Image::HasGlobalPoints() const
{
TDF_Label aLabel = myLab.FindChild( DataTag_TrsfPoints, false );
void HYDROData_Image::SetTrsfMode( const TransformationMode& theMode )
{
TDataStd_Integer::Set( myLab.FindChild( DataTag_TrsfMode ), (int)theMode );
+ Changed( Geom_2d );
}
HYDROData_Image::TransformationMode HYDROData_Image::GetTrsfMode() const
void HYDROData_Image::SetTrsfReferenceImage( const Handle(HYDROData_Image)& theRefImage )
{
SetReferenceObject( theRefImage, DataTag_TrsfImage );
+ Changed( Geom_2d );
}
Handle(HYDROData_Image) HYDROData_Image::GetTrsfReferenceImage() const
void HYDROData_Image::RemoveTrsfReferenceImage()
{
- return RemoveReferenceObject( DataTag_TrsfImage );
+ RemoveReferenceObject( DataTag_TrsfImage );
+ Changed( Geom_2d );
}
void HYDROData_Image::AppendReference( const Handle(HYDROData_Entity)& theReferenced )
{
AddReferenceObject( theReferenced, 0 );
+ Changed( Geom_2d );
}
int HYDROData_Image::NbReferences() const
const int theIndex, Handle(HYDROData_Entity) theReferenced)
{
SetReferenceObject( theReferenced, 0, theIndex );
+ Changed( Geom_2d );
}
void HYDROData_Image::RemoveReference(const int theIndex)
{
RemoveReferenceObject( 0, theIndex );
+ Changed( Geom_2d );
}
void HYDROData_Image::ClearReferences()
{
ClearReferenceObjects( 0 );
+ Changed( Geom_2d );
}
void HYDROData_Image::SetOperatorName( const QString theOpName )
{
TCollection_AsciiString anAsciiStr( theOpName.toStdString().c_str() );
TDataStd_AsciiString::Set( myLab.FindChild( DataTag_Operator ), anAsciiStr );
+ Changed( Geom_2d );
}
QString HYDROData_Image::OperatorName() const
void HYDROData_Image::SetArgs(const QByteArray& theArgs)
{
SaveByteArray(DataTag_Operator, theArgs.constData(), theArgs.length());
+ Changed( Geom_2d );
}
QByteArray HYDROData_Image::Args() const
return QByteArray(aData, aLen);
}
-void HYDROData_Image::SetIsSelfSplitted(bool theFlag)
+void HYDROData_Image::SetIsSelfSplit(bool theFlag)
{
if (theFlag) {
- TDataStd_UAttribute::Set(myLab, GUID_SELF_SPLITTED);
+ TDataStd_UAttribute::Set(myLab, GUID_SELF_SPLIT);
} else {
- myLab.ForgetAttribute(GUID_SELF_SPLITTED);
+ myLab.ForgetAttribute(GUID_SELF_SPLIT);
}
+ Changed( Geom_2d );
}
-bool HYDROData_Image::IsSelfSplitted() const
+bool HYDROData_Image::IsSelfSplit() const
{
- return myLab.IsAttribute(GUID_SELF_SPLITTED);
+ return myLab.IsAttribute(GUID_SELF_SPLIT);
}
QPointF HYDROData_Image::generateThirdPoint( const QPointF& thePointA,
const bool& theIsLocal ) const
{
// Rotate vector to 90 degrees : clockwise - for local
- // anticlockwise - for global
+ // counterclockwise - for global
const double aTheta = theIsLocal ? -M_PI_2 : M_PI_2;
QPointF aResPoint;
