void displayAxes( Viewer3D<space, kspace> & viewer,
const Point & lowerBound, const Point & upperBound,
const std::string & mode )
{
RealPoint p0( (double)lowerBound[ 0 ]-0.5,
(double)lowerBound[ 1 ]-0.5,
(double)lowerBound[ 2 ]-0.5 );
RealPoint p1( (double)upperBound[ 0 ]-0.5,
(double)upperBound[ 1 ]-0.5,
(double)upperBound[ 2 ]-0.5 );
if ( ( mode == "WIRED" ) || ( mode == "COLORED" ) )
{
viewer.setLineColor(AXIS_COLOR);
viewer.addLine( DGtal::Z3i::RealPoint(p0[ 0 ], p0[ 1 ], p0[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p0[ 1 ], p0[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p0[ 0 ], p0[ 1 ], p0[ 2 ]),
DGtal::Z3i::RealPoint(p0[ 0 ], p1[ 1 ], p0[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p0[ 0 ], p0[ 1 ], p0[ 2 ]),
DGtal::Z3i::RealPoint(p0[ 0 ], p0[ 1 ], p1[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p1[ 0 ], p0[ 1 ], p0[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p0[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p1[ 0 ], p0[ 1 ], p0[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p0[ 1 ], p1[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p0[ 0 ], p1[ 1 ], p0[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p0[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p0[ 0 ], p1[ 1 ], p0[ 2 ]),
DGtal::Z3i::RealPoint(p0[ 0 ], p1[ 1 ], p1[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p0[ 0 ], p0[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p0[ 1 ], p1[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p0[ 0 ], p0[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p0[ 0 ], p1[ 1 ], p1[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p0[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p1[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p1[ 0 ], p0[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p1[ 2 ]), AXIS_LINESIZE );
viewer.addLine( DGtal::Z3i::RealPoint(p0[ 0 ], p1[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p1[ 2 ]), AXIS_LINESIZE );
}
if ( mode == "COLORED" )
{
viewer.setFillColor(XY_COLOR);
viewer.addQuad(DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p0[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p0[ 0 ], p0[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p0[ 0 ], p1[ 1 ], p1[ 2 ]) );
viewer.setFillColor(XZ_COLOR);
viewer.addQuad(DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p0[ 0 ], p1[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p0[ 0 ], p1[ 1 ], p0[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p0[ 2 ]));
viewer.setFillColor(YZ_COLOR);
viewer.addQuad(DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p0[ 1 ], p1[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p0[ 1 ], p0[ 2 ]),
DGtal::Z3i::RealPoint(p1[ 0 ], p1[ 1 ], p0[ 2 ]));
}
}
int main( int argc, char** argv )
{
QApplication application(argc,argv);
//! [DigiHelixConstr]
typedef EllipticHelix < Space > MyHelix;
typedef NaiveParametricCurveDigitizer3D < MyHelix > DigitizerHelix;
typedef NaiveParametricCurveDigitizer3D < MyHelix >::DigitalCurve MyDigitalCurve;
typedef NaiveParametricCurveDigitizer3D < MyHelix >::MetaData MyMetaData;
//! [DigiHelixConstr]
trace.info() << "exampleParamCurve3dDigitization" << endl;
Viewer3D<> viewer;
//! [DigiHelixInit]
MyDigitalCurve digitalCurve;
MyMetaData metaData;
MyHelix helix( 15, 10, 1 );
DigitizerHelix digitize;
digitize.init ( M_PI / 2., ( MyHelix::getPeriod() * 10. ) + M_PI / 2., 0.0001 );
digitize.attach ( &helix );
//! [DigiHelixInit]
//! [DigiHelixComp]
digitize.digitize( back_insert_iterator < MyDigitalCurve> ( digitalCurve ), back_insert_iterator < MyMetaData > ( metaData ) );
//! [DigiHelixComp]
trace.info() << "Number of points: " << digitalCurve.size () << " number of metadata: " << metaData.size () << endl;
viewer.show();
//! [DigiHelixMetadata]
for ( unsigned int i = 0; i < digitalCurve.size ( ); i++ )
{
if ( findMainAxis ( helix, metaData.at ( i ).first ) == 0 )
viewer.setFillColor ( Color ( 255, 0, 0, 128 ) );
if ( findMainAxis ( helix, metaData.at ( i ).first ) == 1 )
viewer.setFillColor ( Color ( 0, 255, 0, 128 ) );
if ( findMainAxis ( helix, metaData.at ( i ).first ) == 2 )
viewer.setFillColor ( Color ( 0, 0, 255, 128 ) );
viewer << SetMode3D ( digitalCurve.at ( i ).className ( ), "PavingWired" ) << digitalCurve.at ( i );
}
//! [DigiHelixMetadata]
viewer << Viewer3D<>::updateDisplay;
return application.exec();
}
int main( int argc, char** argv )
{
typedef DGtal::ImageContainerBySTLVector< DGtal::Z3i::Domain, unsigned int> Image3D;
typedef DGtal::ConstImageAdapter<Image3D, Z2i::Domain, DGtal::Point2DEmbedderIn3D<DGtal::Z3i::Domain>,
Image3D::Value, DGtal::DefaultFunctor > ImageAdapterExtractor;
QApplication application(argc,argv);
Viewer3D<> viewer;
viewer.setWindowTitle("simpleViewer");
viewer.show();
trace.beginBlock("Testing Viewer with Image Embedder ");
Point pcenter( 10, 20, 20 );
Point pcenterImg( 10, 20, 20 );
std::string filename = testPath + "samples/cat10.pgm3d";
Image3D image = DGtal::GenericReader<Image3D>::import(filename);
const int IMAGE_PATCH_WIDTH = 80;
// Setting the image domain of the resulting image to be displayed in 3D:
DGtal::Z2i::Domain domainImage2D (DGtal::Z2i::Point(0,0),
DGtal::Z2i::Point(IMAGE_PATCH_WIDTH, IMAGE_PATCH_WIDTH));
DGtal::Point2DEmbedderIn3D<DGtal::Z3i::Domain > embedder(image.domain(),
pcenterImg, Z3i::RealPoint(1, 1, 1),
IMAGE_PATCH_WIDTH);
DGtal::Point2DEmbedderIn3D<DGtal::Z3i::Domain > embedder2(image.domain(),
pcenterImg, Z3i::RealPoint(1, 0, 0),
IMAGE_PATCH_WIDTH);
DGtal::Point2DEmbedderIn3D<DGtal::Z3i::Domain > embedder3(image.domain(),
pcenterImg, Z3i::RealPoint(0, 1, 0 ),
IMAGE_PATCH_WIDTH);
DGtal::Point2DEmbedderIn3D<DGtal::Z3i::Domain > embedder4(image.domain(),
pcenterImg, Z3i::RealPoint(0, 0, 1 ),
IMAGE_PATCH_WIDTH);
DGtal::DefaultFunctor idV;
ImageAdapterExtractor extractedImage(image, domainImage2D, embedder, idV);
ImageAdapterExtractor extractedImage2(image, domainImage2D, embedder2, idV);
ImageAdapterExtractor extractedImage3(image, domainImage2D, embedder3, idV);
ImageAdapterExtractor extractedImage4(image, domainImage2D, embedder4, idV);
viewer << extractedImage;
viewer << extractedImage2;
viewer << extractedImage3;
viewer << extractedImage4;
viewer << DGtal::UpdateImage3DEmbedding<Z3i::Space, Z3i::KSpace>(0,
embedder(Z2i::RealPoint(0,0),false),
embedder(Z2i::RealPoint(IMAGE_PATCH_WIDTH,0),false),
embedder(domainImage2D.upperBound(), false),
embedder(Z2i::RealPoint(0, IMAGE_PATCH_WIDTH), false));
viewer << DGtal::UpdateImage3DEmbedding<Z3i::Space, Z3i::KSpace>(1,
embedder2(Z2i::RealPoint(0,0),false),
embedder2(Z2i::RealPoint(IMAGE_PATCH_WIDTH,0),false),
embedder2(domainImage2D.upperBound(), false),
embedder2(Z2i::RealPoint(0, IMAGE_PATCH_WIDTH), false));
viewer << DGtal::UpdateImage3DEmbedding<Z3i::Space, Z3i::KSpace>(2,
embedder3(Z2i::RealPoint(0,0),false),
embedder3(Z2i::RealPoint(IMAGE_PATCH_WIDTH,0),false),
embedder3(domainImage2D.upperBound(), false),
embedder3(Z2i::RealPoint(0, IMAGE_PATCH_WIDTH), false));
viewer << DGtal::UpdateImage3DEmbedding<Z3i::Space, Z3i::KSpace>(3,
embedder4(Z2i::RealPoint(0,0),false),
embedder4(Z2i::RealPoint(IMAGE_PATCH_WIDTH,0),false),
embedder4(domainImage2D.upperBound(), false),
embedder4(Z2i::RealPoint(0, IMAGE_PATCH_WIDTH), false));
viewer.setFillColor(DGtal::Color(250,20,20,255));
viewer << pcenter;
viewer << Viewer3D<>::updateDisplay;
bool res = application.exec();
trace.emphase() << ( res ? "Passed." : "Error." ) << endl;
trace.endBlock();
return res ? 0 : 1;
}
int main( int argc, char** argv )
{
trace.beginBlock ( "Example ctopo-2-3d" );
// for 3D display with Viewer3D
QApplication application(argc,argv);
typedef ImageSelector < Z3i::Domain, int>::Type Image;
std::string inputFilename = examplesPath + "samples/cat10.vol";
Image image = VolReader<Image>::importVol(inputFilename);
Z3i::DigitalSet set3d (image.domain());
SetPredicate<Z3i::DigitalSet> set3dPredicate( set3d );
SetFromImage<Z3i::DigitalSet>::append<Image>(set3d, image, 0,255);
Viewer3D viewer;
viewer.show();
// Construct the Khalimsky space from the image domain
Z3i::KSpace ks;
bool space_ok = ks.init( image.domain().lowerBound(), image.domain().upperBound(), true );
ASSERT(space_ok);
std::vector<Z3i::SCell> vectBdrySCell;
std::vector<Z3i::SCell> vectBdrySCell2;
std::set<Z3i::SCell> vectBdrySCellALL;
SurfelAdjacency<3> SAdj( true );
//Extract an initial boundary cell
Z3i::SCell aCell = Surfaces<Z3i::KSpace>::findABel(ks, set3dPredicate);
// Extracting all boundary surfels which are connected to the initial boundary Cell.
Surfaces<Z3i::KSpace>::trackBoundary( vectBdrySCellALL,
ks,SAdj, set3dPredicate, aCell );
// Extract the bondary contour associated to the initial surfel in its first direction
Surfaces<Z3i::KSpace>::track2DBoundary( vectBdrySCell,
ks, *(ks.sDirs( aCell )), SAdj,
set3dPredicate, aCell );
// Extract the bondary contour associated to the initial surfel in its second direction
Surfaces<Z3i::KSpace>::track2DBoundary( vectBdrySCell2,
ks, *(++(ks.sDirs( aCell ))), SAdj,
set3dPredicate, aCell );
// Displaying all the surfels in transparent mode
viewer << SetMode3D((*(vectBdrySCellALL.begin())).styleName(), "Transparent");
for( std::set<Z3i::SCell>::iterator it=vectBdrySCellALL.begin();
it!= vectBdrySCellALL.end(); it++){
viewer<< *it;
}
// Displaying First surfels cut with gradient colors.;
GradientColorMap<int> cmap_grad( 0, vectBdrySCell2.size() );
cmap_grad.addColor( Color( 50, 50, 255 ) );
cmap_grad.addColor( Color( 255, 0, 0 ) );
cmap_grad.addColor( Color( 255, 255, 10 ) );
// Need to avoid surfel superposition (the surfel size in increased)
viewer << Viewer3D::shiftSurfelVisu;
viewer << SetMode3D((*(vectBdrySCell2.begin())).styleName(), "");
viewer.setFillColor(Color(180, 200, 25, 255));
int d=0;
for( std::vector<Z3i::SCell>::iterator it=vectBdrySCell2.begin();
it!= vectBdrySCell2.end(); it++){
Color col= cmap_grad(d);
viewer.setFillColor(Color(col.red(),col.green() ,col.blue(), 255));
viewer<< *it;
d++;
}
GradientColorMap<int> cmap_grad2( 0, vectBdrySCell.size() );
cmap_grad2.addColor( Color( 50, 50, 255 ) );
cmap_grad2.addColor( Color( 255, 0, 0 ) );
cmap_grad2.addColor( Color( 255, 255, 10 ) );
d=0;
for( std::vector<Z3i::SCell>::iterator it=vectBdrySCell.begin();
it!= vectBdrySCell.end(); it++){
Color col= cmap_grad2(d);
viewer.setFillColor(Color(col.red(),col.green() ,col.blue(), 255));
viewer<< *it;
d++;
}
// On need once again to avoid superposition.
viewer << Viewer3D::shiftSurfelVisu;
viewer.setFillColor(Color(18, 200, 25, 255));
viewer << aCell ;
viewer << Viewer3D::updateDisplay;
return application.exec();
}
int main( int argc, char** argv )
{
// for 3D display with Viewer3D
QApplication application(argc,argv);
//! [digitalSurfaceSlice-readVol]
trace.beginBlock( "Reading vol file into an image." );
typedef ImageSelector < Domain, int>::Type Image;
std::string inputFilename = examplesPath + "samples/Al.100.vol";
Image image = VolReader<Image>::importVol(inputFilename);
DigitalSet set3d (image.domain());
SetPredicate<DigitalSet> set3dPredicate( set3d );
SetFromImage<DigitalSet>::append<Image>(set3d, image,
0, 1 );
Viewer3D viewer;
viewer.show();
trace.endBlock();
//! [digitalSurfaceSlice-readVol]
//! [digitalSurfaceSlice-KSpace]
trace.beginBlock( "Construct the Khalimsky space from the image domain." );
KSpace ks;
bool space_ok = ks.init( image.domain().lowerBound(),
image.domain().upperBound(), true );
if (!space_ok)
{
trace.error() << "Error in the Khamisky space construction."<<std::endl;
return 2;
}
trace.endBlock();
//! [digitalSurfaceSlice-KSpace]
//! [digitalSurfaceSlice-SurfelAdjacency]
typedef SurfelAdjacency<KSpace::dimension> MySurfelAdjacency;
MySurfelAdjacency surfAdj( true ); // interior in all directions.
//! [digitalSurfaceSlice-SurfelAdjacency]
//! [digitalSurfaceSlice-ExtractingSurface]
trace.beginBlock( "Extracting boundary by scanning the space. " );
typedef KSpace::Surfel Surfel;
typedef KSpace::SurfelSet SurfelSet;
typedef SetOfSurfels< KSpace, SurfelSet > MySetOfSurfels;
typedef DigitalSurface< MySetOfSurfels > MyDigitalSurface;
MySetOfSurfels theSetOfSurfels( ks, surfAdj );
Surfaces<KSpace>::sMakeBoundary( theSetOfSurfels.surfelSet(),
ks, set3dPredicate,
image.domain().lowerBound(),
image.domain().upperBound() );
MyDigitalSurface digSurf( theSetOfSurfels );
trace.info() << "Digital surface has " << digSurf.size() << " surfels."
<< std::endl;
trace.endBlock();
//! [digitalSurfaceSlice-ExtractingSurface]
//! [digitalSurfaceSlice-ExtractingSlice]
trace.beginBlock( "Extract slices." );
typedef MyDigitalSurface::DigitalSurfaceTracker MyTracker;
typedef DigitalSurface2DSlice< MyTracker > My2DSlice;
//Extract an initial boundary cell
Surfel surf = *digSurf.begin();
MyTracker* tracker1 = digSurf.container().newTracker( surf );
MyTracker* tracker2 = digSurf.container().newTracker( surf );
// Extract the bondary contour associated to the initial surfel in
// its first direction
My2DSlice slice1( tracker1, *(ks.sDirs( surf )) );
// Extract the bondary contour associated to the initial surfel in
// its second direction
My2DSlice slice2( tracker2, *++(ks.sDirs( surf )) );
delete tracker1;
delete tracker2;
trace.endBlock();
//! [digitalSurfaceSlice-ExtractingSlice]
ASSERT( slice1.start() == slice1.begin() );
ASSERT( slice1.cstart() == slice1.c() );
ASSERT( *slice1.begin() == surf );
ASSERT( *slice1.c() == surf );
ASSERT( *slice1.start() == surf );
ASSERT( *slice1.cstart() == surf );
ASSERT( *slice1.rcstart() == surf );
ASSERT( slice1.rcstart() == slice1.rc() );
ASSERT( *slice1.rc() == surf );
ASSERT( *(slice1.c()+1) == *(slice1.begin()+1) );
ASSERT( *(slice1.rc()+1) == *(slice1.rbegin()) );
//! [digitalSurfaceSlice-displayingAll]
trace.beginBlock( "Display all with QGLViewer." );
// Displaying all the surfels in transparent mode
viewer << SetMode3D( surf.className(), "Transparent");
for( MyDigitalSurface::ConstIterator it = theSetOfSurfels.begin(),
it_end = theSetOfSurfels.end(); it != it_end; ++it )
viewer<< *it;
// Displaying First surfels cut with gradient colors.;
GradientColorMap<int> cmap_grad( 0, slice1.size() );
cmap_grad.addColor( Color( 50, 50, 255 ) );
cmap_grad.addColor( Color( 255, 0, 0 ) );
cmap_grad.addColor( Color( 255, 255, 10 ) );
// Need to avoid surfel superposition (the surfel size in increased)
viewer << Viewer3D::shiftSurfelVisu;
viewer << SetMode3D( surf.className(), "");
viewer.setFillColor(Color(180, 200, 25, 255));
int d=0;
for ( My2DSlice::ConstIterator it = slice1.begin(),
it_end = slice1.end(); it != it_end; ++it )
{
Color col= cmap_grad(d);
viewer.setFillColor(Color(col.red(),col.green() ,col.blue(), 255));
viewer<< *it;
d++;
}
GradientColorMap<int> cmap_grad2( 0, slice2.size() );
cmap_grad2.addColor( Color( 50, 50, 255 ) );
cmap_grad2.addColor( Color( 255, 0, 0 ) );
cmap_grad2.addColor( Color( 255, 255, 10 ) );
d=0;
for ( My2DSlice::ConstIterator it = slice2.begin(),
it_end = slice2.end(); it != it_end; ++it )
{
Color col= cmap_grad2(d);
viewer.setFillColor(Color(col.red(),col.green() ,col.blue(), 255));
viewer<< *it;
d++;
}
// One need once again to avoid superposition.
viewer << Viewer3D::shiftSurfelVisu;
viewer.setFillColor(Color(18, 200, 25, 255));
viewer << surf ;
viewer << Viewer3D::updateDisplay;
trace.endBlock();
return application.exec();
//! [digitalSurfaceSlice-displayingAll]
}
int main( int argc, char** argv )
{
trace.info() << "exampleGridCurve3d: the type can be changed in example source code with <gridcurve>, <inner>, <outer>, <incident> " << std::endl;
string type = "gridcurve";
//vol reading and digital set construction
trace.beginBlock( "Reading vol file into an image." );
typedef ImageSelector < Domain, int>::Type Image;
std::string inputFilename = examplesPath + "samples/cat10.vol";
Image image = VolReader<Image>::importVol(inputFilename);
DigitalSet set3d (image.domain());
setFromImage( image, DigitalSetInserter<DigitalSet>(set3d), 1);
trace.info() << set3d.size() << " voxels." << std::endl;
trace.endBlock();
//Khalimsky space construction
trace.beginBlock( "Construct the Khalimsky space from the image domain." );
KSpace ks;
/* bool space_ok = ks.init( image.domain().lowerBound(),
image.domain().upperBound(), true );
if (!space_ok)
{
trace.error() << "Error in the Khamisky space construction."<<std::endl;
return 2;
}*/
trace.endBlock();
//digital surface construction
typedef SurfelAdjacency<KSpace::dimension> MySurfelAdjacency;
MySurfelAdjacency surfAdj( true ); // interior in all directions.
trace.beginBlock( "Extracting boundary by scanning the space. " );
typedef KSpace::Surfel Surfel;
typedef KSpace::SurfelSet SurfelSet;
typedef SetOfSurfels< KSpace, SurfelSet > MySetOfSurfels;
typedef DigitalSurface< MySetOfSurfels > MyDigitalSurface;
MySetOfSurfels theSetOfSurfels( ks, surfAdj );
Surfaces<KSpace>::sMakeBoundary( theSetOfSurfels.surfelSet(),
ks, set3d,
image.domain().lowerBound(),
image.domain().upperBound() );
MyDigitalSurface digSurf( theSetOfSurfels );
trace.info() << digSurf.size() << " surfels." << std::endl;
trace.endBlock();
//slice retrieving
trace.beginBlock( "Extracting slice and constructing a grid curve. " );
typedef MyDigitalSurface::DigitalSurfaceTracker MyTracker;
typedef DigitalSurface2DSlice< MyTracker > My2DSlice;
//Extract an initial boundary cell
Surfel surf = *digSurf.begin();
MyTracker* tracker = digSurf.container().newTracker( surf );
// Extract the bondary contour associated to the initial surfel in
// its first direction
My2DSlice slice( tracker, *(ks.sDirs( surf )) );
delete tracker;
//! [exampleGridCurve3d-Construction]
GridCurve<KSpace> gc(ks);
gc.initFromSCellsRange( slice.begin(), slice.end() );
//! [exampleGridCurve3d-Construction]
trace.endBlock();
// for 3D display with Viewer3D
QApplication application(argc,argv);
trace.beginBlock( "Display all with QGLViewer." );
Viewer3D<> viewer;
viewer.show();
// Displaying all the surfels in transparent mode
viewer << SetMode3D( surf.className(), "Transparent");
for( MyDigitalSurface::ConstIterator it = theSetOfSurfels.begin(),
it_end = theSetOfSurfels.end(); it != it_end; ++it )
viewer<< *it;
// Displaying slice
viewer << Viewer3D<>::shiftSurfelVisu;
viewer << SetMode3D( surf.className(), "");
viewer.setFillColor( Color( 50, 50, 255 ) );
if (type == "gridcurve")
{
viewer << gc;
}
else if (type == "inner")
{
viewer << gc.getInnerPointsRange();
}
else if (type == "outer")
{
viewer << gc.getOuterPointsRange();
}
else if (type == "incident")
{
viewer << gc.getIncidentPointsRange();
}
else
{
trace.info() << "Display type not known. Use option -h" << std::endl;
}
viewer << Viewer3D<>::updateDisplay;
trace.endBlock();
return application.exec();
}