public Cone(ARenderable parent)
: base(parent)
{
Name = "Cone";
cone = vtkConeSource.New();
cone.SetAngle(10);
cone.SetRadius(0.2);
cone.SetHeight(0.5);
cone.SetResolution(20);
move = vtkTransform.New();
move.Translate(_random.NextDouble(), _random.NextDouble(), _random.NextDouble());
moveFilter = vtkTransformPolyDataFilter.New();
moveFilter.SetTransform(move);
moveFilter.SetInputConnection(cone.GetOutputPort());
mapper = vtkPolyDataMapper.New();
mapper.SetInputConnection(moveFilter.GetOutputPort());
vtkActor actor = vtkActor.New();
actor.SetMapper(mapper);
Actors = new ObservableCollection <vtkActor>();
Actors.Add(actor);
}
static public vtkAlgorithmOutput genFrustumCone(double total_dis, double end_radius,
double distance, bool is_reverse)
{
vtkConeSource cone = vtkConeSource.New();
cone.SetHeight(total_dis * 1.2);
cone.SetRadius(end_radius * 1.2);
cone.SetCenter(0, 0, total_dis * 0.4);
cone.SetResolution(80);
cone.SetDirection(0, 0, 1);
cone.Update();
vtkPlane plane = vtkPlane.New();
plane.SetOrigin(0, 0, 0);
plane.SetNormal(0, 0, 1);
vtkClipPolyData clipPolyData = vtkClipPolyData.New();
clipPolyData.SetInputConnection(cone.GetOutputPort());
clipPolyData.SetClipFunction(plane);
clipPolyData.GenerateClippedOutputOn();
clipPolyData.Update();
vtkPlane plane2 = vtkPlane.New();
plane2.SetOrigin(0, 0, distance);
plane2.SetNormal(0, 0, -1);
vtkClipPolyData clipPolyData2 = vtkClipPolyData.New();
clipPolyData2.SetInputConnection(clipPolyData.GetOutputPort());
clipPolyData2.SetClipFunction(plane2);
clipPolyData2.GenerateClippedOutputOn();
clipPolyData2.Update();
if (is_reverse)
{
vtkTransform transform = vtkTransform.New();
transform.RotateWXYZ(180, 0, 1, 0);
transform.Translate(0, 0, -distance);
vtkTransformPolyDataFilter transFilter = vtkTransformPolyDataFilter.New();
transFilter.SetInputConnection(clipPolyData2.GetOutputPort());
transFilter.SetTransform(transform); //use vtkTransform (or maybe vtkLinearTransform)
transFilter.Update();
return(transFilter.GetOutputPort());
}
return(clipPolyData2.GetOutputPort());
}
/// <summary>
/// The main entry method called by the CSharp driver
/// </summary>
/// <param name="argv"></param>
public static void AVTenEllip(String [] argv)
{
//Prefix Content is: ""
// create tensor ellipsoids[]
// Create the RenderWindow, Renderer and interactive renderer[]
//[]
ren1 = vtkRenderer.New();
renWin = vtkRenderWindow.New();
renWin.SetMultiSamples(0);
renWin.AddRenderer((vtkRenderer)ren1);
iren = new vtkRenderWindowInteractor();
iren.SetRenderWindow((vtkRenderWindow)renWin);
//[]
// Create tensor ellipsoids[]
//[]
// generate tensors[]
ptLoad = new vtkPointLoad();
ptLoad.SetLoadValue((double)100.0);
ptLoad.SetSampleDimensions((int)6,(int)6,(int)6);
ptLoad.ComputeEffectiveStressOn();
ptLoad.SetModelBounds((double)-10,(double)10,(double)-10,(double)10,(double)-10,(double)10);
// extract plane of data[]
plane = new vtkImageDataGeometryFilter();
plane.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
plane.SetExtent((int)2,(int)2,(int)0,(int)99,(int)0,(int)99);
// Generate ellipsoids[]
sphere = new vtkSphereSource();
sphere.SetThetaResolution((int)8);
sphere.SetPhiResolution((int)8);
ellipsoids = new vtkTensorGlyph();
ellipsoids.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
ellipsoids.SetSourceConnection((vtkAlgorithmOutput)sphere.GetOutputPort());
ellipsoids.SetScaleFactor((double)10);
ellipsoids.ClampScalingOn();
ellipNormals = new vtkPolyDataNormals();
ellipNormals.SetInputConnection((vtkAlgorithmOutput)ellipsoids.GetOutputPort());
// Map contour[]
lut = new vtkLogLookupTable();
lut.SetHueRange((double).6667,(double)0.0);
ellipMapper = vtkPolyDataMapper.New();
ellipMapper.SetInputConnection((vtkAlgorithmOutput)ellipNormals.GetOutputPort());
ellipMapper.SetLookupTable((vtkScalarsToColors)lut);
plane.Update();
//force update for scalar range[]
ellipMapper.SetScalarRange((double)((vtkDataSet)plane.GetOutput()).GetScalarRange()[0],(double)((vtkDataSet)plane.GetOutput()).GetScalarRange()[1]);
ellipActor = new vtkActor();
ellipActor.SetMapper((vtkMapper)ellipMapper);
//[]
// Create outline around data[]
//[]
outline = new vtkOutlineFilter();
outline.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
outlineMapper = vtkPolyDataMapper.New();
outlineMapper.SetInputConnection((vtkAlgorithmOutput)outline.GetOutputPort());
outlineActor = new vtkActor();
outlineActor.SetMapper((vtkMapper)outlineMapper);
outlineActor.GetProperty().SetColor((double)0,(double)0,(double)0);
//[]
// Create cone indicating application of load[]
//[]
coneSrc = new vtkConeSource();
coneSrc.SetRadius((double).5);
coneSrc.SetHeight((double)2);
coneMap = vtkPolyDataMapper.New();
coneMap.SetInputConnection((vtkAlgorithmOutput)coneSrc.GetOutputPort());
coneActor = new vtkActor();
coneActor.SetMapper((vtkMapper)coneMap);
coneActor.SetPosition((double)0,(double)0,(double)11);
coneActor.RotateY((double)90);
coneActor.GetProperty().SetColor((double)1,(double)0,(double)0);
camera = new vtkCamera();
camera.SetFocalPoint((double)0.113766,(double)-1.13665,(double)-1.01919);
camera.SetPosition((double)-29.4886,(double)-63.1488,(double)26.5807);
camera.SetViewAngle((double)24.4617);
camera.SetViewUp((double)0.17138,(double)0.331163,(double)0.927879);
camera.SetClippingRange((double)1,(double)100);
ren1.AddActor((vtkProp)ellipActor);
ren1.AddActor((vtkProp)outlineActor);
ren1.AddActor((vtkProp)coneActor);
ren1.SetBackground((double)1.0,(double)1.0,(double)1.0);
ren1.SetActiveCamera((vtkCamera)camera);
renWin.SetSize((int)400,(int)400);
renWin.Render();
// prevent the tk window from showing up then start the event loop[]
//deleteAllVTKObjects();
}
/// <summary>
/// The main entry method called by the CSharp driver
/// </summary>
/// <param name="argv"></param>
public static void AVExtractTensors(String [] argv)
{
//Prefix Content is: ""
// create tensor ellipsoids[]
// Create the RenderWindow, Renderer and interactive renderer[]
//[]
ren1 = vtkRenderer.New();
renWin = vtkRenderWindow.New();
renWin.AddRenderer((vtkRenderer)ren1);
iren = new vtkRenderWindowInteractor();
iren.SetRenderWindow((vtkRenderWindow)renWin);
ptLoad = new vtkPointLoad();
ptLoad.SetLoadValue((double)100.0);
ptLoad.SetSampleDimensions((int)30,(int)30,(int)30);
ptLoad.ComputeEffectiveStressOn();
ptLoad.SetModelBounds((double)-10,(double)10,(double)-10,(double)10,(double)-10,(double)10);
extractTensor = new vtkExtractTensorComponents();
extractTensor.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
extractTensor.ScalarIsEffectiveStress();
extractTensor.ScalarIsComponent();
extractTensor.ExtractScalarsOn();
extractTensor.ExtractVectorsOn();
extractTensor.ExtractNormalsOff();
extractTensor.ExtractTCoordsOn();
contour = new vtkContourFilter();
contour.SetInputConnection((vtkAlgorithmOutput)extractTensor.GetOutputPort());
contour.SetValue((int)0,(double)0);
probe = new vtkProbeFilter();
probe.SetInputConnection((vtkAlgorithmOutput)contour.GetOutputPort());
probe.SetSource((vtkDataObject)ptLoad.GetOutput());
su = new vtkLoopSubdivisionFilter();
su.SetInputConnection((vtkAlgorithmOutput)probe.GetOutputPort());
su.SetNumberOfSubdivisions((int)1);
s1Mapper = vtkPolyDataMapper.New();
s1Mapper.SetInputConnection((vtkAlgorithmOutput)probe.GetOutputPort());
// s1Mapper SetInputConnection [su GetOutputPort][]
s1Actor = new vtkActor();
s1Actor.SetMapper((vtkMapper)s1Mapper);
//[]
// plane for context[]
//[]
g = new vtkImageDataGeometryFilter();
g.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
g.SetExtent((int)0,(int)100,(int)0,(int)100,(int)0,(int)0);
g.Update();
//for scalar range[]
gm = vtkPolyDataMapper.New();
gm.SetInputConnection((vtkAlgorithmOutput)g.GetOutputPort());
gm.SetScalarRange((double)((vtkDataSet)g.GetOutput()).GetScalarRange()[0],(double)((vtkDataSet)g.GetOutput()).GetScalarRange()[1]);
ga = new vtkActor();
ga.SetMapper((vtkMapper)gm);
s1Mapper.SetScalarRange((double)((vtkDataSet)g.GetOutput()).GetScalarRange()[0],(double)((vtkDataSet)g.GetOutput()).GetScalarRange()[1]);
//[]
// Create outline around data[]
//[]
outline = new vtkOutlineFilter();
outline.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
outlineMapper = vtkPolyDataMapper.New();
outlineMapper.SetInputConnection((vtkAlgorithmOutput)outline.GetOutputPort());
outlineActor = new vtkActor();
outlineActor.SetMapper((vtkMapper)outlineMapper);
outlineActor.GetProperty().SetColor((double)0,(double)0,(double)0);
//[]
// Create cone indicating application of load[]
//[]
coneSrc = new vtkConeSource();
coneSrc.SetRadius((double).5);
coneSrc.SetHeight((double)2);
coneMap = vtkPolyDataMapper.New();
coneMap.SetInputConnection((vtkAlgorithmOutput)coneSrc.GetOutputPort());
coneActor = new vtkActor();
coneActor.SetMapper((vtkMapper)coneMap);
coneActor.SetPosition((double)0,(double)0,(double)11);
coneActor.RotateY((double)90);
coneActor.GetProperty().SetColor((double)1,(double)0,(double)0);
camera = new vtkCamera();
camera.SetFocalPoint((double)0.113766,(double)-1.13665,(double)-1.01919);
camera.SetPosition((double)-29.4886,(double)-63.1488,(double)26.5807);
camera.SetViewAngle((double)24.4617);
camera.SetViewUp((double)0.17138,(double)0.331163,(double)0.927879);
camera.SetClippingRange((double)1,(double)100);
ren1.AddActor((vtkProp)s1Actor);
ren1.AddActor((vtkProp)outlineActor);
ren1.AddActor((vtkProp)coneActor);
ren1.AddActor((vtkProp)ga);
ren1.SetBackground((double)1.0,(double)1.0,(double)1.0);
ren1.SetActiveCamera((vtkCamera)camera);
renWin.SetSize((int)300,(int)300);
renWin.Render();
// prevent the tk window from showing up then start the event loop[]
//deleteAllVTKObjects();
}
/// <summary>
/// The main entry method called by the CSharp driver
/// </summary>
/// <param name="argv"></param>
public static void AVTenEllip(String [] argv)
{
//Prefix Content is: ""
// create tensor ellipsoids[]
// Create the RenderWindow, Renderer and interactive renderer[]
//[]
ren1 = vtkRenderer.New();
renWin = vtkRenderWindow.New();
renWin.SetMultiSamples(0);
renWin.AddRenderer((vtkRenderer)ren1);
iren = new vtkRenderWindowInteractor();
iren.SetRenderWindow((vtkRenderWindow)renWin);
//[]
// Create tensor ellipsoids[]
//[]
// generate tensors[]
ptLoad = new vtkPointLoad();
ptLoad.SetLoadValue((double)100.0);
ptLoad.SetSampleDimensions((int)6, (int)6, (int)6);
ptLoad.ComputeEffectiveStressOn();
ptLoad.SetModelBounds((double)-10, (double)10, (double)-10, (double)10, (double)-10, (double)10);
// extract plane of data[]
plane = new vtkImageDataGeometryFilter();
plane.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
plane.SetExtent((int)2, (int)2, (int)0, (int)99, (int)0, (int)99);
// Generate ellipsoids[]
sphere = new vtkSphereSource();
sphere.SetThetaResolution((int)8);
sphere.SetPhiResolution((int)8);
ellipsoids = new vtkTensorGlyph();
ellipsoids.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
ellipsoids.SetSourceConnection((vtkAlgorithmOutput)sphere.GetOutputPort());
ellipsoids.SetScaleFactor((double)10);
ellipsoids.ClampScalingOn();
ellipNormals = new vtkPolyDataNormals();
ellipNormals.SetInputConnection((vtkAlgorithmOutput)ellipsoids.GetOutputPort());
// Map contour[]
lut = new vtkLogLookupTable();
lut.SetHueRange((double).6667, (double)0.0);
ellipMapper = vtkPolyDataMapper.New();
ellipMapper.SetInputConnection((vtkAlgorithmOutput)ellipNormals.GetOutputPort());
ellipMapper.SetLookupTable((vtkScalarsToColors)lut);
plane.Update();
//force update for scalar range[]
ellipMapper.SetScalarRange((double)((vtkDataSet)plane.GetOutput()).GetScalarRange()[0], (double)((vtkDataSet)plane.GetOutput()).GetScalarRange()[1]);
ellipActor = new vtkActor();
ellipActor.SetMapper((vtkMapper)ellipMapper);
//[]
// Create outline around data[]
//[]
outline = new vtkOutlineFilter();
outline.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
outlineMapper = vtkPolyDataMapper.New();
outlineMapper.SetInputConnection((vtkAlgorithmOutput)outline.GetOutputPort());
outlineActor = new vtkActor();
outlineActor.SetMapper((vtkMapper)outlineMapper);
outlineActor.GetProperty().SetColor((double)0, (double)0, (double)0);
//[]
// Create cone indicating application of load[]
//[]
coneSrc = new vtkConeSource();
coneSrc.SetRadius((double).5);
coneSrc.SetHeight((double)2);
coneMap = vtkPolyDataMapper.New();
coneMap.SetInputConnection((vtkAlgorithmOutput)coneSrc.GetOutputPort());
coneActor = new vtkActor();
coneActor.SetMapper((vtkMapper)coneMap);
coneActor.SetPosition((double)0, (double)0, (double)11);
coneActor.RotateY((double)90);
coneActor.GetProperty().SetColor((double)1, (double)0, (double)0);
camera = new vtkCamera();
camera.SetFocalPoint((double)0.113766, (double)-1.13665, (double)-1.01919);
camera.SetPosition((double)-29.4886, (double)-63.1488, (double)26.5807);
camera.SetViewAngle((double)24.4617);
camera.SetViewUp((double)0.17138, (double)0.331163, (double)0.927879);
camera.SetClippingRange((double)1, (double)100);
ren1.AddActor((vtkProp)ellipActor);
ren1.AddActor((vtkProp)outlineActor);
ren1.AddActor((vtkProp)coneActor);
ren1.SetBackground((double)1.0, (double)1.0, (double)1.0);
ren1.SetActiveCamera((vtkCamera)camera);
renWin.SetSize((int)400, (int)400);
renWin.Render();
// prevent the tk window from showing up then start the event loop[]
//deleteAllVTKObjects();
}
static void Main(string[] args)
{
//
// Next we create an instance of vtkConeSource and set some of its
// properties. The instance of vtkConeSource "cone" is part of a visualization
// pipeline (it is a source process object); it produces data (output type is
// vtkPolyData) which other filters may process.
//
vtkConeSource cone = new vtkConeSource();
cone.SetHeight( 3.0f );
cone.SetRadius( 1.0f );
cone.SetResolution( 10 );
//
// In this example we terminate the pipeline with a mapper process object.
// (Intermediate filters such as vtkShrinkPolyData could be inserted in
// between the source and the mapper.) We create an instance of
// vtkPolyDataMapper to map the polygonal data into graphics primitives. We
// connect the output of the cone souece to the input of this mapper.
//
vtkPolyDataMapper coneMapper = new vtkPolyDataMapper();
coneMapper.SetInput( cone.GetOutput() );
//
// Create an actor to represent the cone. The actor orchestrates rendering of
// the mapper's graphics primitives. An actor also refers to properties via a
// vtkProperty instance, and includes an internal transformation matrix. We
// set this actor's mapper to be coneMapper which we created above.
//
vtkActor coneActor = new vtkActor();
coneActor.SetMapper( coneMapper );
//
// Create the Renderer and assign actors to it. A renderer is like a
// viewport. It is part or all of a window on the screen and it is
// responsible for drawing the actors it has. We also set the background
// color here
//
vtkRenderer ren1 = new vtkRenderer();
ren1.AddActor( coneActor );
ren1.SetBackground( 0.1f, 0.2f, 0.4f );
//
// Finally we create the render window which will show up on the screen
// We put our renderer into the render window using AddRenderer. We also
// set the size to be 300 pixels by 300
//
vtkRenderWindow renWin = new vtkRenderWindow();
renWin.AddRenderer( ren1 );
renWin.SetSize( 300, 300 );
vtkRenderWindowInteractor iren = new vtkRenderWindowInteractor();
iren.SetRenderWindow(renWin);
vtkInteractorStyleTrackballCamera style =
new vtkInteractorStyleTrackballCamera();
iren.SetInteractorStyle(style);
vtkBoxWidget boxWidget = new vtkBoxWidget();
boxWidget.SetInteractor(iren);
boxWidget.SetPlaceFactor(1.25f);
boxWidget.SetProp3D(coneActor);
boxWidget.PlaceWidget();
boxWidget.AddObserver((uint) EventIds.InteractionEvent,
new vtkDotNetCallback(myCallback));
boxWidget.On();
iren.Initialize();
iren.Start();
vtkWin32OpenGLRenderWindow win32win =
vtkWin32OpenGLRenderWindow.SafeDownCast(renWin);
if ( null != win32win ) win32win.Clean();
}
/// <summary>
/// Update Boundary Condition actor (arrows) in Viewport
/// </summary>
public void Update_Arrows(Dictionary <int, Node> NodeLib, double scale, int Step, bool ClipMode)
{
vtkPoints PointsX = vtkPoints.New();
vtkPoints PointsY = vtkPoints.New();
vtkPoints PointsZ = vtkPoints.New();
// Create Cone Sources for X, Y and Z direction
vtkConeSource ConeSourceX = vtkConeSource.New();
vtkConeSource ConeSourceY = vtkConeSource.New();
vtkConeSource ConeSourceZ = vtkConeSource.New();
ConeSourceX.SetAngle(15);
ConeSourceX.SetHeight(scale);
ConeSourceX.SetRadius(scale / 4);
ConeSourceX.SetResolution(12);
ConeSourceX.SetDirection(1, 0, 0);
ConeSourceY.SetAngle(15);
ConeSourceY.SetHeight(scale);
ConeSourceY.SetRadius(scale / 4);
ConeSourceY.SetResolution(12);
ConeSourceY.SetDirection(0, 1, 0);
ConeSourceZ.SetAngle(15);
ConeSourceZ.SetHeight(scale);
ConeSourceZ.SetRadius(scale / 4);
ConeSourceZ.SetResolution(12);
ConeSourceZ.SetDirection(0, 0, 1);
// Create Points
foreach (int i in NodalValues.Keys)
{
double X = NodeLib[i].X + NodeLib[i].GetDisp(Step, 0);
double Y = NodeLib[i].Y + NodeLib[i].GetDisp(Step, 1);
double Z = NodeLib[i].Z + NodeLib[i].GetDisp(Step, 2);
if (NodalValues[i].Get(0, 0) != 0)
{
PointsX.InsertNextPoint(X - scale / 2, Y, Z);
}
if (NodalValues[i].Get(1, 0) != 0)
{
PointsY.InsertNextPoint(X, Y - scale / 2, Z);
}
if (NodalValues[i].Get(2, 0) != 0)
{
PointsZ.InsertNextPoint(X, Y, Z - scale / 2);
}
}
// Set Points to PolyData
vtkPolyData PolyX = vtkPolyData.New(); PolyX.SetPoints(PointsX);
vtkPolyData PolyY = vtkPolyData.New(); PolyY.SetPoints(PointsY);
vtkPolyData PolyZ = vtkPolyData.New(); PolyZ.SetPoints(PointsZ);
// Create Glyphs 3D
GlyphX = vtkGlyph3D.New();
GlyphY = vtkGlyph3D.New();
GlyphZ = vtkGlyph3D.New();
GlyphX.SetSourceConnection(ConeSourceX.GetOutputPort());
GlyphX.SetInput(PolyX);
GlyphX.Update();
GlyphY.SetSourceConnection(ConeSourceY.GetOutputPort());
GlyphY.SetInput(PolyY);
GlyphY.Update();
GlyphZ.SetSourceConnection(ConeSourceZ.GetOutputPort());
GlyphZ.SetInput(PolyZ);
GlyphZ.Update();
// Set Mapper based on Clip Mode
if (ClipMode == true)
{
// Add Clippers to Mapper
ClipperX.SetInputConnection(GlyphX.GetOutputPort());
ClipperX.Update();
MapperX.SetInputConnection(ClipperX.GetOutputPort());
MapperX.Update();
ClipperY.SetInputConnection(GlyphY.GetOutputPort());
ClipperY.Update();
MapperY.SetInputConnection(ClipperY.GetOutputPort());
MapperY.Update();
ClipperZ.SetInputConnection(GlyphZ.GetOutputPort());
ClipperZ.Update();
MapperZ.SetInputConnection(ClipperZ.GetOutputPort());
MapperZ.Update();
}
else
{
// Add Glyphs to Mapper
MapperX.SetInputConnection(GlyphX.GetOutputPort());
MapperY.SetInputConnection(GlyphY.GetOutputPort());
MapperZ.SetInputConnection(GlyphZ.GetOutputPort());
MapperX.Update();
MapperY.Update();
MapperZ.Update();
}
// Update Actor color
ActorX.GetProperty().SetColor(
GetColor()[0] / 255.0,
GetColor()[1] / 255.0,
GetColor()[2] / 255.0);
ActorY.GetProperty().SetColor(
GetColor()[0] / 255.0,
GetColor()[1] / 255.0,
GetColor()[2] / 255.0);
ActorZ.GetProperty().SetColor(
GetColor()[0] / 255.0,
GetColor()[1] / 255.0,
GetColor()[2] / 255.0);
}
/// <summary>
/// The main entry method called by the CSharp driver
/// </summary>
/// <param name="argv"></param>
public static void AVHyper(String [] argv)
{
//Prefix Content is: ""
// Create the RenderWindow, Renderer and interactive renderer[]
//[]
ren1 = vtkRenderer.New();
renWin = vtkRenderWindow.New();
renWin.AddRenderer((vtkRenderer)ren1);
iren = new vtkRenderWindowInteractor();
iren.SetRenderWindow((vtkRenderWindow)renWin);
VTK_INTEGRATE_BOTH_DIRECTIONS = 2;
//[]
// generate tensors[]
ptLoad = new vtkPointLoad();
ptLoad.SetLoadValue((double)100.0);
ptLoad.SetSampleDimensions((int)20,(int)20,(int)20);
ptLoad.ComputeEffectiveStressOn();
ptLoad.SetModelBounds((double)-10,(double)10,(double)-10,(double)10,(double)-10,(double)10);
//[]
// If the current directory is writable, then test the witers[]
//[]
try
{
channel = new StreamWriter("test.tmp");
tryCatchError = "NOERROR";
}
catch(Exception)
{tryCatchError = "ERROR";}
if(tryCatchError.Equals("NOERROR"))
{
channel.Close();
File.Delete("test.tmp");
wSP = new vtkDataSetWriter();
wSP.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
wSP.SetFileName((string)"wSP.vtk");
wSP.SetTensorsName((string)"pointload");
wSP.SetScalarsName((string)"effective_stress");
wSP.Write();
rSP = new vtkDataSetReader();
rSP.SetFileName((string)"wSP.vtk");
rSP.SetTensorsName((string)"pointload");
rSP.SetScalarsName((string)"effective_stress");
rSP.Update();
input = rSP.GetOutput();
File.Delete("wSP.vtk");
}
else
{
input = ptLoad.GetOutput();
}
// Generate hyperstreamlines[]
s1 = new vtkHyperStreamline();
s1.SetInputData((vtkDataObject)input);
s1.SetStartPosition((double)9,(double)9,(double)-9);
s1.IntegrateMinorEigenvector();
s1.SetMaximumPropagationDistance((double)18.0);
s1.SetIntegrationStepLength((double)0.1);
s1.SetStepLength((double)0.01);
s1.SetRadius((double)0.25);
s1.SetNumberOfSides((int)18);
s1.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s1.Update();
// Map hyperstreamlines[]
lut = new vtkLogLookupTable();
lut.SetHueRange((double).6667,(double)0.0);
s1Mapper = vtkPolyDataMapper.New();
s1Mapper.SetInputConnection((vtkAlgorithmOutput)s1.GetOutputPort());
s1Mapper.SetLookupTable((vtkScalarsToColors)lut);
ptLoad.Update();
//force update for scalar range[]
s1Mapper.SetScalarRange((double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[0],(double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[1]);
s1Actor = new vtkActor();
s1Actor.SetMapper((vtkMapper)s1Mapper);
s2 = new vtkHyperStreamline();
s2.SetInputData((vtkDataObject)input);
s2.SetStartPosition((double)-9,(double)-9,(double)-9);
s2.IntegrateMinorEigenvector();
s2.SetMaximumPropagationDistance((double)18.0);
s2.SetIntegrationStepLength((double)0.1);
s2.SetStepLength((double)0.01);
s2.SetRadius((double)0.25);
s2.SetNumberOfSides((int)18);
s2.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s2.Update();
s2Mapper = vtkPolyDataMapper.New();
s2Mapper.SetInputConnection((vtkAlgorithmOutput)s2.GetOutputPort());
s2Mapper.SetLookupTable((vtkScalarsToColors)lut);
s2Mapper.SetScalarRange((double)((vtkDataSet)input).GetScalarRange()[0],(double)((vtkDataSet)input).GetScalarRange()[1]);
s2Actor = new vtkActor();
s2Actor.SetMapper((vtkMapper)s2Mapper);
s3 = new vtkHyperStreamline();
s3.SetInputData((vtkDataObject)input);
s3.SetStartPosition((double)9,(double)-9,(double)-9);
s3.IntegrateMinorEigenvector();
s3.SetMaximumPropagationDistance((double)18.0);
s3.SetIntegrationStepLength((double)0.1);
s3.SetStepLength((double)0.01);
s3.SetRadius((double)0.25);
s3.SetNumberOfSides((int)18);
s3.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s3.Update();
s3Mapper = vtkPolyDataMapper.New();
s3Mapper.SetInputConnection((vtkAlgorithmOutput)s3.GetOutputPort());
s3Mapper.SetLookupTable((vtkScalarsToColors)lut);
s3Mapper.SetScalarRange((double)((vtkDataSet)input).GetScalarRange()[0],
(double)((vtkDataSet)input).GetScalarRange()[1]);
s3Actor = new vtkActor();
s3Actor.SetMapper((vtkMapper)s3Mapper);
s4 = new vtkHyperStreamline();
s4.SetInputData((vtkDataObject)input);
s4.SetStartPosition((double)-9,(double)9,(double)-9);
s4.IntegrateMinorEigenvector();
s4.SetMaximumPropagationDistance((double)18.0);
s4.SetIntegrationStepLength((double)0.1);
s4.SetStepLength((double)0.01);
s4.SetRadius((double)0.25);
s4.SetNumberOfSides((int)18);
s4.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s4.Update();
s4Mapper = vtkPolyDataMapper.New();
s4Mapper.SetInputConnection((vtkAlgorithmOutput)s4.GetOutputPort());
s4Mapper.SetLookupTable((vtkScalarsToColors)lut);
s4Mapper.SetScalarRange((double)((vtkDataSet)input).GetScalarRange()[0],(double)((vtkDataSet)input).GetScalarRange()[1]);
s4Actor = new vtkActor();
s4Actor.SetMapper((vtkMapper)s4Mapper);
// plane for context[]
//[]
g = new vtkImageDataGeometryFilter();
g.SetInputData((vtkDataObject)input);
g.SetExtent((int)0,(int)100,(int)0,(int)100,(int)0,(int)0);
g.Update();
//for scalar range[]
gm = vtkPolyDataMapper.New();
gm.SetInputConnection((vtkAlgorithmOutput)g.GetOutputPort());
gm.SetScalarRange((double)((vtkDataSet)g.GetOutput()).GetScalarRange()[0],(double)((vtkDataSet)g.GetOutput()).GetScalarRange()[1]);
ga = new vtkActor();
ga.SetMapper((vtkMapper)gm);
// Create outline around data[]
//[]
outline = new vtkOutlineFilter();
outline.SetInputData((vtkDataObject)input);
outlineMapper = vtkPolyDataMapper.New();
outlineMapper.SetInputConnection((vtkAlgorithmOutput)outline.GetOutputPort());
outlineActor = new vtkActor();
outlineActor.SetMapper((vtkMapper)outlineMapper);
outlineActor.GetProperty().SetColor((double)0,(double)0,(double)0);
// Create cone indicating application of load[]
//[]
coneSrc = new vtkConeSource();
coneSrc.SetRadius((double).5);
coneSrc.SetHeight((double)2);
coneMap = vtkPolyDataMapper.New();
coneMap.SetInputConnection((vtkAlgorithmOutput)coneSrc.GetOutputPort());
coneActor = new vtkActor();
coneActor.SetMapper((vtkMapper)coneMap);
coneActor.SetPosition((double)0,(double)0,(double)11);
coneActor.RotateY((double)90);
coneActor.GetProperty().SetColor((double)1,(double)0,(double)0);
camera = new vtkCamera();
camera.SetFocalPoint((double)0.113766,(double)-1.13665,(double)-1.01919);
camera.SetPosition((double)-29.4886,(double)-63.1488,(double)26.5807);
camera.SetViewAngle((double)24.4617);
camera.SetViewUp((double)0.17138,(double)0.331163,(double)0.927879);
camera.SetClippingRange((double)1,(double)100);
ren1.AddActor((vtkProp)s1Actor);
ren1.AddActor((vtkProp)s2Actor);
ren1.AddActor((vtkProp)s3Actor);
ren1.AddActor((vtkProp)s4Actor);
ren1.AddActor((vtkProp)outlineActor);
ren1.AddActor((vtkProp)coneActor);
ren1.AddActor((vtkProp)ga);
ren1.SetBackground((double)1.0,(double)1.0,(double)1.0);
ren1.SetActiveCamera((vtkCamera)camera);
renWin.SetSize((int)300,(int)300);
renWin.Render();
// prevent the tk window from showing up then start the event loop[]
//deleteAllVTKObjects();
}
/// <summary>
/// The main entry method called by the CSharp driver
/// </summary>
/// <param name="argv"></param>
public static void AVExtractTensors(String [] argv)
{
//Prefix Content is: ""
// create tensor ellipsoids[]
// Create the RenderWindow, Renderer and interactive renderer[]
//[]
ren1 = vtkRenderer.New();
renWin = vtkRenderWindow.New();
renWin.AddRenderer((vtkRenderer)ren1);
iren = new vtkRenderWindowInteractor();
iren.SetRenderWindow((vtkRenderWindow)renWin);
ptLoad = new vtkPointLoad();
ptLoad.SetLoadValue((double)100.0);
ptLoad.SetSampleDimensions((int)30, (int)30, (int)30);
ptLoad.ComputeEffectiveStressOn();
ptLoad.SetModelBounds((double)-10, (double)10, (double)-10, (double)10, (double)-10, (double)10);
extractTensor = new vtkExtractTensorComponents();
extractTensor.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
extractTensor.ScalarIsEffectiveStress();
extractTensor.ScalarIsComponent();
extractTensor.ExtractScalarsOn();
extractTensor.ExtractVectorsOn();
extractTensor.ExtractNormalsOff();
extractTensor.ExtractTCoordsOn();
contour = new vtkContourFilter();
contour.SetInputConnection((vtkAlgorithmOutput)extractTensor.GetOutputPort());
contour.SetValue((int)0, (double)0);
probe = new vtkProbeFilter();
probe.SetInputConnection((vtkAlgorithmOutput)contour.GetOutputPort());
probe.SetSourceConnection(ptLoad.GetOutputPort());
su = new vtkLoopSubdivisionFilter();
su.SetInputConnection((vtkAlgorithmOutput)probe.GetOutputPort());
su.SetNumberOfSubdivisions((int)1);
s1Mapper = vtkPolyDataMapper.New();
s1Mapper.SetInputConnection((vtkAlgorithmOutput)probe.GetOutputPort());
// s1Mapper SetInputConnection [su GetOutputPort][]
s1Actor = new vtkActor();
s1Actor.SetMapper((vtkMapper)s1Mapper);
//[]
// plane for context[]
//[]
g = new vtkImageDataGeometryFilter();
g.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
g.SetExtent((int)0, (int)100, (int)0, (int)100, (int)0, (int)0);
g.Update();
//for scalar range[]
gm = vtkPolyDataMapper.New();
gm.SetInputConnection((vtkAlgorithmOutput)g.GetOutputPort());
gm.SetScalarRange((double)((vtkDataSet)g.GetOutput()).GetScalarRange()[0], (double)((vtkDataSet)g.GetOutput()).GetScalarRange()[1]);
ga = new vtkActor();
ga.SetMapper((vtkMapper)gm);
s1Mapper.SetScalarRange((double)((vtkDataSet)g.GetOutput()).GetScalarRange()[0], (double)((vtkDataSet)g.GetOutput()).GetScalarRange()[1]);
//[]
// Create outline around data[]
//[]
outline = new vtkOutlineFilter();
outline.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
outlineMapper = vtkPolyDataMapper.New();
outlineMapper.SetInputConnection((vtkAlgorithmOutput)outline.GetOutputPort());
outlineActor = new vtkActor();
outlineActor.SetMapper((vtkMapper)outlineMapper);
outlineActor.GetProperty().SetColor((double)0, (double)0, (double)0);
//[]
// Create cone indicating application of load[]
//[]
coneSrc = new vtkConeSource();
coneSrc.SetRadius((double).5);
coneSrc.SetHeight((double)2);
coneMap = vtkPolyDataMapper.New();
coneMap.SetInputConnection((vtkAlgorithmOutput)coneSrc.GetOutputPort());
coneActor = new vtkActor();
coneActor.SetMapper((vtkMapper)coneMap);
coneActor.SetPosition((double)0, (double)0, (double)11);
coneActor.RotateY((double)90);
coneActor.GetProperty().SetColor((double)1, (double)0, (double)0);
camera = new vtkCamera();
camera.SetFocalPoint((double)0.113766, (double)-1.13665, (double)-1.01919);
camera.SetPosition((double)-29.4886, (double)-63.1488, (double)26.5807);
camera.SetViewAngle((double)24.4617);
camera.SetViewUp((double)0.17138, (double)0.331163, (double)0.927879);
camera.SetClippingRange((double)1, (double)100);
ren1.AddActor((vtkProp)s1Actor);
ren1.AddActor((vtkProp)outlineActor);
ren1.AddActor((vtkProp)coneActor);
ren1.AddActor((vtkProp)ga);
ren1.SetBackground((double)1.0, (double)1.0, (double)1.0);
ren1.SetActiveCamera((vtkCamera)camera);
renWin.SetSize((int)300, (int)300);
renWin.Render();
// prevent the tk window from showing up then start the event loop[]
//deleteAllVTKObjects();
}
/// <summary>
/// The main entry method called by the CSharp driver
/// </summary>
/// <param name="argv"></param>
public static void AVHyper(String [] argv)
{
//Prefix Content is: ""
// Create the RenderWindow, Renderer and interactive renderer[]
//[]
ren1 = vtkRenderer.New();
renWin = vtkRenderWindow.New();
renWin.AddRenderer((vtkRenderer)ren1);
iren = new vtkRenderWindowInteractor();
iren.SetRenderWindow((vtkRenderWindow)renWin);
VTK_INTEGRATE_BOTH_DIRECTIONS = 2;
//[]
// generate tensors[]
ptLoad = new vtkPointLoad();
ptLoad.SetLoadValue((double)100.0);
ptLoad.SetSampleDimensions((int)20, (int)20, (int)20);
ptLoad.ComputeEffectiveStressOn();
ptLoad.SetModelBounds((double)-10, (double)10, (double)-10, (double)10, (double)-10, (double)10);
//[]
// If the current directory is writable, then test the witers[]
//[]
try
{
channel = new StreamWriter("test.tmp");
tryCatchError = "NOERROR";
}
catch (Exception)
{ tryCatchError = "ERROR"; }
if (tryCatchError.Equals("NOERROR"))
{
channel.Close();
File.Delete("test.tmp");
wSP = new vtkDataSetWriter();
wSP.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
wSP.SetFileName((string)"wSP.vtk");
wSP.SetTensorsName((string)"pointload");
wSP.SetScalarsName((string)"effective_stress");
wSP.Write();
rSP = new vtkDataSetReader();
rSP.SetFileName((string)"wSP.vtk");
rSP.SetTensorsName((string)"pointload");
rSP.SetScalarsName((string)"effective_stress");
rSP.Update();
input = rSP.GetOutput();
File.Delete("wSP.vtk");
}
else
{
input = ptLoad.GetOutput();
}
// Generate hyperstreamlines[]
s1 = new vtkHyperStreamline();
s1.SetInputData((vtkDataObject)input);
s1.SetStartPosition((double)9, (double)9, (double)-9);
s1.IntegrateMinorEigenvector();
s1.SetMaximumPropagationDistance((double)18.0);
s1.SetIntegrationStepLength((double)0.1);
s1.SetStepLength((double)0.01);
s1.SetRadius((double)0.25);
s1.SetNumberOfSides((int)18);
s1.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s1.Update();
// Map hyperstreamlines[]
lut = new vtkLogLookupTable();
lut.SetHueRange((double).6667, (double)0.0);
s1Mapper = vtkPolyDataMapper.New();
s1Mapper.SetInputConnection((vtkAlgorithmOutput)s1.GetOutputPort());
s1Mapper.SetLookupTable((vtkScalarsToColors)lut);
ptLoad.Update();
//force update for scalar range[]
s1Mapper.SetScalarRange((double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[0], (double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[1]);
s1Actor = new vtkActor();
s1Actor.SetMapper((vtkMapper)s1Mapper);
s2 = new vtkHyperStreamline();
s2.SetInputData((vtkDataObject)input);
s2.SetStartPosition((double)-9, (double)-9, (double)-9);
s2.IntegrateMinorEigenvector();
s2.SetMaximumPropagationDistance((double)18.0);
s2.SetIntegrationStepLength((double)0.1);
s2.SetStepLength((double)0.01);
s2.SetRadius((double)0.25);
s2.SetNumberOfSides((int)18);
s2.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s2.Update();
s2Mapper = vtkPolyDataMapper.New();
s2Mapper.SetInputConnection((vtkAlgorithmOutput)s2.GetOutputPort());
s2Mapper.SetLookupTable((vtkScalarsToColors)lut);
s2Mapper.SetScalarRange((double)((vtkDataSet)input).GetScalarRange()[0], (double)((vtkDataSet)input).GetScalarRange()[1]);
s2Actor = new vtkActor();
s2Actor.SetMapper((vtkMapper)s2Mapper);
s3 = new vtkHyperStreamline();
s3.SetInputData((vtkDataObject)input);
s3.SetStartPosition((double)9, (double)-9, (double)-9);
s3.IntegrateMinorEigenvector();
s3.SetMaximumPropagationDistance((double)18.0);
s3.SetIntegrationStepLength((double)0.1);
s3.SetStepLength((double)0.01);
s3.SetRadius((double)0.25);
s3.SetNumberOfSides((int)18);
s3.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s3.Update();
s3Mapper = vtkPolyDataMapper.New();
s3Mapper.SetInputConnection((vtkAlgorithmOutput)s3.GetOutputPort());
s3Mapper.SetLookupTable((vtkScalarsToColors)lut);
s3Mapper.SetScalarRange((double)((vtkDataSet)input).GetScalarRange()[0],
(double)((vtkDataSet)input).GetScalarRange()[1]);
s3Actor = new vtkActor();
s3Actor.SetMapper((vtkMapper)s3Mapper);
s4 = new vtkHyperStreamline();
s4.SetInputData((vtkDataObject)input);
s4.SetStartPosition((double)-9, (double)9, (double)-9);
s4.IntegrateMinorEigenvector();
s4.SetMaximumPropagationDistance((double)18.0);
s4.SetIntegrationStepLength((double)0.1);
s4.SetStepLength((double)0.01);
s4.SetRadius((double)0.25);
s4.SetNumberOfSides((int)18);
s4.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s4.Update();
s4Mapper = vtkPolyDataMapper.New();
s4Mapper.SetInputConnection((vtkAlgorithmOutput)s4.GetOutputPort());
s4Mapper.SetLookupTable((vtkScalarsToColors)lut);
s4Mapper.SetScalarRange((double)((vtkDataSet)input).GetScalarRange()[0], (double)((vtkDataSet)input).GetScalarRange()[1]);
s4Actor = new vtkActor();
s4Actor.SetMapper((vtkMapper)s4Mapper);
// plane for context[]
//[]
g = new vtkImageDataGeometryFilter();
g.SetInputData((vtkDataObject)input);
g.SetExtent((int)0, (int)100, (int)0, (int)100, (int)0, (int)0);
g.Update();
//for scalar range[]
gm = vtkPolyDataMapper.New();
gm.SetInputConnection((vtkAlgorithmOutput)g.GetOutputPort());
gm.SetScalarRange((double)((vtkDataSet)g.GetOutput()).GetScalarRange()[0], (double)((vtkDataSet)g.GetOutput()).GetScalarRange()[1]);
ga = new vtkActor();
ga.SetMapper((vtkMapper)gm);
// Create outline around data[]
//[]
outline = new vtkOutlineFilter();
outline.SetInputData((vtkDataObject)input);
outlineMapper = vtkPolyDataMapper.New();
outlineMapper.SetInputConnection((vtkAlgorithmOutput)outline.GetOutputPort());
outlineActor = new vtkActor();
outlineActor.SetMapper((vtkMapper)outlineMapper);
outlineActor.GetProperty().SetColor((double)0, (double)0, (double)0);
// Create cone indicating application of load[]
//[]
coneSrc = new vtkConeSource();
coneSrc.SetRadius((double).5);
coneSrc.SetHeight((double)2);
coneMap = vtkPolyDataMapper.New();
coneMap.SetInputConnection((vtkAlgorithmOutput)coneSrc.GetOutputPort());
coneActor = new vtkActor();
coneActor.SetMapper((vtkMapper)coneMap);
coneActor.SetPosition((double)0, (double)0, (double)11);
coneActor.RotateY((double)90);
coneActor.GetProperty().SetColor((double)1, (double)0, (double)0);
camera = new vtkCamera();
camera.SetFocalPoint((double)0.113766, (double)-1.13665, (double)-1.01919);
camera.SetPosition((double)-29.4886, (double)-63.1488, (double)26.5807);
camera.SetViewAngle((double)24.4617);
camera.SetViewUp((double)0.17138, (double)0.331163, (double)0.927879);
camera.SetClippingRange((double)1, (double)100);
ren1.AddActor((vtkProp)s1Actor);
ren1.AddActor((vtkProp)s2Actor);
ren1.AddActor((vtkProp)s3Actor);
ren1.AddActor((vtkProp)s4Actor);
ren1.AddActor((vtkProp)outlineActor);
ren1.AddActor((vtkProp)coneActor);
ren1.AddActor((vtkProp)ga);
ren1.SetBackground((double)1.0, (double)1.0, (double)1.0);
ren1.SetActiveCamera((vtkCamera)camera);
renWin.SetSize((int)300, (int)300);
renWin.Render();
// prevent the tk window from showing up then start the event loop[]
//deleteAllVTKObjects();
}
/// <summary>
/// The main entry method called by the CSharp driver
/// </summary>
/// <param name="argv"></param>
public static void AVHyperScalarBar(String [] argv)
{
//Prefix Content is: ""
// Test the scalar bar actor using a logarithmic lookup table[]
//[]
VTK_INTEGRATE_BOTH_DIRECTIONS = 2;
//[]
// generate tensors[]
ptLoad = new vtkPointLoad();
ptLoad.SetLoadValue((double)100.0);
ptLoad.SetSampleDimensions((int)20, (int)20, (int)20);
ptLoad.ComputeEffectiveStressOn();
ptLoad.SetModelBounds((double)-10, (double)10, (double)-10, (double)10, (double)-10, (double)10);
// Generate hyperstreamlines[]
s1 = new vtkHyperStreamline();
s1.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
s1.SetStartPosition((double)9, (double)9, (double)-9);
s1.IntegrateMinorEigenvector();
s1.SetMaximumPropagationDistance((double)18.0);
s1.SetIntegrationStepLength((double)0.1);
s1.SetStepLength((double)0.01);
s1.SetRadius((double)0.25);
s1.SetNumberOfSides((int)18);
s1.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s1.Update();
// Map hyperstreamlines[]
lut = new vtkLogLookupTable();
lut.SetHueRange((double).6667, (double)0.0);
scalarBar = new vtkScalarBarActor();
scalarBar.SetLookupTable((vtkScalarsToColors)lut);
scalarBar.SetTitle((string)"Stress");
scalarBar.GetPositionCoordinate().SetCoordinateSystemToNormalizedViewport();
scalarBar.GetPositionCoordinate().SetValue((double)0.1, (double)0.05);
scalarBar.SetOrientationToVertical();
scalarBar.SetWidth((double)0.1);
scalarBar.SetHeight((double)0.9);
scalarBar.SetPosition((double)0.01, (double)0.1);
scalarBar.SetLabelFormat((string)"%-#6.3f");
scalarBar.GetLabelTextProperty().SetColor((double)1, (double)0, (double)0);
scalarBar.GetTitleTextProperty().SetColor((double)1, (double)0, (double)0);
s1Mapper = vtkPolyDataMapper.New();
s1Mapper.SetInputConnection((vtkAlgorithmOutput)s1.GetOutputPort());
s1Mapper.SetLookupTable((vtkScalarsToColors)lut);
ptLoad.Update();
//force update for scalar range[]
s1Mapper.SetScalarRange((double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[0], (double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[1]);
s1Actor = new vtkActor();
s1Actor.SetMapper((vtkMapper)s1Mapper);
s2 = new vtkHyperStreamline();
s2.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
s2.SetStartPosition((double)-9, (double)-9, (double)-9);
s2.IntegrateMinorEigenvector();
s2.SetMaximumPropagationDistance((double)18.0);
s2.SetIntegrationStepLength((double)0.1);
s2.SetStepLength((double)0.01);
s2.SetRadius((double)0.25);
s2.SetNumberOfSides((int)18);
s2.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s2.Update();
s2Mapper = vtkPolyDataMapper.New();
s2Mapper.SetInputConnection((vtkAlgorithmOutput)s2.GetOutputPort());
s2Mapper.SetLookupTable((vtkScalarsToColors)lut);
s2Mapper.SetScalarRange((double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[0], (double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[1]);
s2Actor = new vtkActor();
s2Actor.SetMapper((vtkMapper)s2Mapper);
s3 = new vtkHyperStreamline();
s3.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
s3.SetStartPosition((double)9, (double)-9, (double)-9);
s3.IntegrateMinorEigenvector();
s3.SetMaximumPropagationDistance((double)18.0);
s3.SetIntegrationStepLength((double)0.1);
s3.SetStepLength((double)0.01);
s3.SetRadius((double)0.25);
s3.SetNumberOfSides((int)18);
s3.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s3.Update();
s3Mapper = vtkPolyDataMapper.New();
s3Mapper.SetInputConnection((vtkAlgorithmOutput)s3.GetOutputPort());
s3Mapper.SetLookupTable((vtkScalarsToColors)lut);
s3Mapper.SetScalarRange((double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[0], (double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[1]);
s3Actor = new vtkActor();
s3Actor.SetMapper((vtkMapper)s3Mapper);
s4 = new vtkHyperStreamline();
s4.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
s4.SetStartPosition((double)-9, (double)9, (double)-9);
s4.IntegrateMinorEigenvector();
s4.SetMaximumPropagationDistance((double)18.0);
s4.SetIntegrationStepLength((double)0.1);
s4.SetStepLength((double)0.01);
s4.SetRadius((double)0.25);
s4.SetNumberOfSides((int)18);
s4.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s4.Update();
s4Mapper = vtkPolyDataMapper.New();
s4Mapper.SetInputConnection((vtkAlgorithmOutput)s4.GetOutputPort());
s4Mapper.SetLookupTable((vtkScalarsToColors)lut);
s4Mapper.SetScalarRange((double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[0], (double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[1]);
s4Actor = new vtkActor();
s4Actor.SetMapper((vtkMapper)s4Mapper);
// plane for context[]
//[]
g = new vtkImageDataGeometryFilter();
g.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
g.SetExtent((int)0, (int)100, (int)0, (int)100, (int)0, (int)0);
g.Update();
//for scalar range[]
gm = vtkPolyDataMapper.New();
gm.SetInputConnection((vtkAlgorithmOutput)g.GetOutputPort());
gm.SetScalarRange((double)((vtkImageDataGeometryFilter)g).GetOutput().GetScalarRange()[0], (double)((vtkImageDataGeometryFilter)g).GetOutput().GetScalarRange()[1]);
ga = new vtkActor();
ga.SetMapper((vtkMapper)gm);
// Create outline around data[]
//[]
outline = new vtkOutlineFilter();
outline.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
outlineMapper = vtkPolyDataMapper.New();
outlineMapper.SetInputConnection((vtkAlgorithmOutput)outline.GetOutputPort());
outlineActor = new vtkActor();
outlineActor.SetMapper((vtkMapper)outlineMapper);
outlineActor.GetProperty().SetColor((double)0, (double)0, (double)0);
// Create cone indicating application of load[]
//[]
coneSrc = new vtkConeSource();
coneSrc.SetRadius((double).5);
coneSrc.SetHeight((double)2);
coneMap = vtkPolyDataMapper.New();
coneMap.SetInputConnection((vtkAlgorithmOutput)coneSrc.GetOutputPort());
coneActor = new vtkActor();
coneActor.SetMapper((vtkMapper)coneMap);
coneActor.SetPosition((double)0, (double)0, (double)11);
coneActor.RotateY((double)90);
coneActor.GetProperty().SetColor((double)1, (double)0, (double)0);
// Create the rendering infrastructure[]
//[]
ren1 = vtkRenderer.New();
renWin = vtkRenderWindow.New();
renWin.AddRenderer((vtkRenderer)ren1);
iren = new vtkRenderWindowInteractor();
iren.SetRenderWindow((vtkRenderWindow)renWin);
camera = new vtkCamera();
camera.SetFocalPoint((double)0.113766, (double)-1.13665, (double)-1.01919);
camera.SetPosition((double)-29.4886, (double)-63.1488, (double)26.5807);
camera.SetViewAngle((double)24.4617);
camera.SetViewUp((double)0.17138, (double)0.331163, (double)0.927879);
camera.SetClippingRange((double)1, (double)100);
ren1.AddActor2D((vtkProp)scalarBar);
ren1.AddActor((vtkProp)s1Actor);
ren1.AddActor((vtkProp)s2Actor);
ren1.AddActor((vtkProp)s3Actor);
ren1.AddActor((vtkProp)s4Actor);
ren1.AddActor((vtkProp)outlineActor);
ren1.AddActor((vtkProp)coneActor);
ren1.AddActor((vtkProp)ga);
ren1.SetBackground((double)1.0, (double)1.0, (double)1.0);
ren1.SetActiveCamera((vtkCamera)camera);
renWin.SetSize((int)300, (int)300);
renWin.Render();
// prevent the tk window from showing up then start the event loop[]
//deleteAllVTKObjects();
}
/// <summary>
/// The main entry method called by the CSharp driver
/// </summary>
/// <param name="argv"></param>
public static void AVHyperScalarBar(String [] argv)
{
//Prefix Content is: ""
// Test the scalar bar actor using a logarithmic lookup table[]
//[]
VTK_INTEGRATE_BOTH_DIRECTIONS = 2;
//[]
// generate tensors[]
ptLoad = new vtkPointLoad();
ptLoad.SetLoadValue((double)100.0);
ptLoad.SetSampleDimensions((int)20,(int)20,(int)20);
ptLoad.ComputeEffectiveStressOn();
ptLoad.SetModelBounds((double)-10,(double)10,(double)-10,(double)10,(double)-10,(double)10);
// Generate hyperstreamlines[]
s1 = new vtkHyperStreamline();
s1.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
s1.SetStartPosition((double)9,(double)9,(double)-9);
s1.IntegrateMinorEigenvector();
s1.SetMaximumPropagationDistance((double)18.0);
s1.SetIntegrationStepLength((double)0.1);
s1.SetStepLength((double)0.01);
s1.SetRadius((double)0.25);
s1.SetNumberOfSides((int)18);
s1.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s1.Update();
// Map hyperstreamlines[]
lut = new vtkLogLookupTable();
lut.SetHueRange((double).6667,(double)0.0);
scalarBar = new vtkScalarBarActor();
scalarBar.SetLookupTable((vtkScalarsToColors)lut);
scalarBar.SetTitle((string)"Stress");
scalarBar.GetPositionCoordinate().SetCoordinateSystemToNormalizedViewport();
scalarBar.GetPositionCoordinate().SetValue((double)0.1,(double)0.05);
scalarBar.SetOrientationToVertical();
scalarBar.SetWidth((double)0.1);
scalarBar.SetHeight((double)0.9);
scalarBar.SetPosition((double)0.01,(double)0.1);
scalarBar.SetLabelFormat((string)"%-#6.3f");
scalarBar.GetLabelTextProperty().SetColor((double)1,(double)0,(double)0);
scalarBar.GetTitleTextProperty().SetColor((double)1,(double)0,(double)0);
s1Mapper = vtkPolyDataMapper.New();
s1Mapper.SetInputConnection((vtkAlgorithmOutput)s1.GetOutputPort());
s1Mapper.SetLookupTable((vtkScalarsToColors)lut);
ptLoad.Update();
//force update for scalar range[]
s1Mapper.SetScalarRange((double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[0],(double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[1]);
s1Actor = new vtkActor();
s1Actor.SetMapper((vtkMapper)s1Mapper);
s2 = new vtkHyperStreamline();
s2.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
s2.SetStartPosition((double)-9,(double)-9,(double)-9);
s2.IntegrateMinorEigenvector();
s2.SetMaximumPropagationDistance((double)18.0);
s2.SetIntegrationStepLength((double)0.1);
s2.SetStepLength((double)0.01);
s2.SetRadius((double)0.25);
s2.SetNumberOfSides((int)18);
s2.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s2.Update();
s2Mapper = vtkPolyDataMapper.New();
s2Mapper.SetInputConnection((vtkAlgorithmOutput)s2.GetOutputPort());
s2Mapper.SetLookupTable((vtkScalarsToColors)lut);
s2Mapper.SetScalarRange((double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[0],(double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[1]);
s2Actor = new vtkActor();
s2Actor.SetMapper((vtkMapper)s2Mapper);
s3 = new vtkHyperStreamline();
s3.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
s3.SetStartPosition((double)9,(double)-9,(double)-9);
s3.IntegrateMinorEigenvector();
s3.SetMaximumPropagationDistance((double)18.0);
s3.SetIntegrationStepLength((double)0.1);
s3.SetStepLength((double)0.01);
s3.SetRadius((double)0.25);
s3.SetNumberOfSides((int)18);
s3.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s3.Update();
s3Mapper = vtkPolyDataMapper.New();
s3Mapper.SetInputConnection((vtkAlgorithmOutput)s3.GetOutputPort());
s3Mapper.SetLookupTable((vtkScalarsToColors)lut);
s3Mapper.SetScalarRange((double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[0],(double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[1]);
s3Actor = new vtkActor();
s3Actor.SetMapper((vtkMapper)s3Mapper);
s4 = new vtkHyperStreamline();
s4.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
s4.SetStartPosition((double)-9,(double)9,(double)-9);
s4.IntegrateMinorEigenvector();
s4.SetMaximumPropagationDistance((double)18.0);
s4.SetIntegrationStepLength((double)0.1);
s4.SetStepLength((double)0.01);
s4.SetRadius((double)0.25);
s4.SetNumberOfSides((int)18);
s4.SetIntegrationDirection((int)VTK_INTEGRATE_BOTH_DIRECTIONS);
s4.Update();
s4Mapper = vtkPolyDataMapper.New();
s4Mapper.SetInputConnection((vtkAlgorithmOutput)s4.GetOutputPort());
s4Mapper.SetLookupTable((vtkScalarsToColors)lut);
s4Mapper.SetScalarRange((double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[0],(double)((vtkDataSet)ptLoad.GetOutput()).GetScalarRange()[1]);
s4Actor = new vtkActor();
s4Actor.SetMapper((vtkMapper)s4Mapper);
// plane for context[]
//[]
g = new vtkImageDataGeometryFilter();
g.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
g.SetExtent((int)0,(int)100,(int)0,(int)100,(int)0,(int)0);
g.Update();
//for scalar range[]
gm = vtkPolyDataMapper.New();
gm.SetInputConnection((vtkAlgorithmOutput)g.GetOutputPort());
gm.SetScalarRange((double)((vtkImageDataGeometryFilter)g).GetOutput().GetScalarRange()[0], (double)((vtkImageDataGeometryFilter)g).GetOutput().GetScalarRange()[1]);
ga = new vtkActor();
ga.SetMapper((vtkMapper)gm);
// Create outline around data[]
//[]
outline = new vtkOutlineFilter();
outline.SetInputConnection((vtkAlgorithmOutput)ptLoad.GetOutputPort());
outlineMapper = vtkPolyDataMapper.New();
outlineMapper.SetInputConnection((vtkAlgorithmOutput)outline.GetOutputPort());
outlineActor = new vtkActor();
outlineActor.SetMapper((vtkMapper)outlineMapper);
outlineActor.GetProperty().SetColor((double)0,(double)0,(double)0);
// Create cone indicating application of load[]
//[]
coneSrc = new vtkConeSource();
coneSrc.SetRadius((double).5);
coneSrc.SetHeight((double)2);
coneMap = vtkPolyDataMapper.New();
coneMap.SetInputConnection((vtkAlgorithmOutput)coneSrc.GetOutputPort());
coneActor = new vtkActor();
coneActor.SetMapper((vtkMapper)coneMap);
coneActor.SetPosition((double)0,(double)0,(double)11);
coneActor.RotateY((double)90);
coneActor.GetProperty().SetColor((double)1,(double)0,(double)0);
// Create the rendering infrastructure[]
//[]
ren1 = vtkRenderer.New();
renWin = vtkRenderWindow.New();
renWin.AddRenderer((vtkRenderer)ren1);
iren = new vtkRenderWindowInteractor();
iren.SetRenderWindow((vtkRenderWindow)renWin);
camera = new vtkCamera();
camera.SetFocalPoint((double)0.113766,(double)-1.13665,(double)-1.01919);
camera.SetPosition((double)-29.4886,(double)-63.1488,(double)26.5807);
camera.SetViewAngle((double)24.4617);
camera.SetViewUp((double)0.17138,(double)0.331163,(double)0.927879);
camera.SetClippingRange((double)1,(double)100);
ren1.AddActor2D((vtkProp)scalarBar);
ren1.AddActor((vtkProp)s1Actor);
ren1.AddActor((vtkProp)s2Actor);
ren1.AddActor((vtkProp)s3Actor);
ren1.AddActor((vtkProp)s4Actor);
ren1.AddActor((vtkProp)outlineActor);
ren1.AddActor((vtkProp)coneActor);
ren1.AddActor((vtkProp)ga);
ren1.SetBackground((double)1.0,(double)1.0,(double)1.0);
ren1.SetActiveCamera((vtkCamera)camera);
renWin.SetSize((int)300,(int)300);
renWin.Render();
// prevent the tk window from showing up then start the event loop[]
//deleteAllVTKObjects();
}
