C# vtkRenderWindow.Render方法代码示例

        static void Main()
        {
            string VTK_DATA_ROOT = "C:/Program Files/VTKData";

            // Create a vtkBYUReader and read in a data set.
            vtkBYUReader fohe = new vtkBYUReader();
            fohe.SetGeometryFileName(VTK_DATA_ROOT + "/Data/teapot.g");

            // Create a vtkPolyDataNormals filter to calculate the normals of the
            // data set.
            vtkPolyDataNormals normals = new vtkPolyDataNormals();
            normals.SetInputConnection(fohe.GetOutputPort());
            // Set up the associated mapper and actor.
            vtkPolyDataMapper foheMapper = new vtkPolyDataMapper();
            foheMapper.SetInputConnection(normals.GetOutputPort());
            vtkLODActor foheActor = new vtkLODActor();
            foheActor.SetMapper(foheMapper);

            // Create a vtkOutlineFilter to draw the bounding box of the data set.
            // Also create the associated mapper and actor.
            vtkOutlineFilter outline = new vtkOutlineFilter();
            outline.SetInputConnection(normals.GetOutputPort());
            vtkPolyDataMapper mapOutline = new vtkPolyDataMapper();
            mapOutline.SetInputConnection(outline.GetOutputPort());
            vtkActor outlineActor = new vtkActor();
            outlineActor.SetMapper(mapOutline);
            outlineActor.GetProperty().SetColor(0, 0, 0);

            // Create a vtkCamera, and set the camera parameters.
            vtkCamera camera = new vtkCamera();
            camera.SetClippingRange(1.60187, 20.0842);
            camera.SetFocalPoint(0.21406, 1.5, 0);
            camera.SetPosition(8.3761, 4.94858, 4.12505);
            camera.SetViewUp(0.180325, 0.549245, -0.815974);

            // Create a vtkLight, and set the light parameters.
            vtkLight light = new vtkLight();
            light.SetFocalPoint(0.21406, 1.5, 0);
            light.SetPosition(8.3761, 4.94858, 4.12505);

            // Create the Renderers.  Assign them the appropriate viewport
            // coordinates, active camera, and light.
            vtkRenderer ren = new vtkRenderer();
            ren.SetViewport(0, 0, 0.5, 1.0);
            ren.SetActiveCamera(camera);
            ren.AddLight(light);
            vtkRenderer ren2 = new vtkRenderer();
            ren2.SetViewport(0.5, 0, 1.0, 1.0);
            ren2.SetActiveCamera(camera);
            ren2.AddLight(light);

            // Create the RenderWindow and RenderWindowInteractor.
            vtkRenderWindow renWin = new vtkRenderWindow();
            renWin.AddRenderer(ren);
            renWin.AddRenderer(ren2);
            renWin.SetWindowName("VTK - Cube Axes");
            renWin.SetSize(600, 300);
            vtkRenderWindowInteractor iren = new vtkRenderWindowInteractor();
            iren.SetRenderWindow(renWin);

            // Add the actors to the renderer, and set the background.
            ren.AddViewProp(foheActor);
            ren.AddViewProp(outlineActor);
            ren2.AddViewProp(foheActor);
            ren2.AddViewProp(outlineActor);

            ren.SetBackground(0.1, 0.2, 0.4);
            ren2.SetBackground(0.1, 0.2, 0.4);

            // Create a text property for both cube axes
            vtkTextProperty tprop = new vtkTextProperty();
            tprop.SetColor(1, 1, 1);
            tprop.ShadowOn();

            // Create a vtkCubeAxesActor2D.  Use the outer edges of the bounding box to
            // draw the axes.  Add the actor to the renderer.
            vtkCubeAxesActor2D axes = new vtkCubeAxesActor2D();
            axes.SetInput(normals.GetOutput());
            axes.SetCamera(ren.GetActiveCamera());
            axes.SetLabelFormat("%6.4g");
            axes.SetFlyModeToOuterEdges();
            axes.SetFontFactor(0.8);
            axes.SetAxisTitleTextProperty(tprop);
            axes.SetAxisLabelTextProperty(tprop);
            ren.AddViewProp(axes);

            // Create a vtkCubeAxesActor2D.  Use the closest vertex to the camera to
            // determine where to draw the axes.  Add the actor to the renderer.
            vtkCubeAxesActor2D axes2 = new vtkCubeAxesActor2D();
            axes2.SetViewProp(foheActor);
            axes2.SetCamera(ren2.GetActiveCamera());
            axes2.SetLabelFormat("%6.4g");
            axes2.SetFlyModeToClosestTriad();
            axes2.SetFontFactor(0.8);
            axes2.ScalingOff();
            axes2.SetAxisTitleTextProperty(tprop);
            axes2.SetAxisLabelTextProperty(tprop);
            ren2.AddViewProp(axes2);

            renWin.AddObserver((uint) EventIds.AbortCheckEvent, CheckAbort);
//.........这里部分代码省略.........

        ///<summary>Entry Point</summary>
        static void Main(string[] args)
        {
            // Create a simple sphere. A pipeline is created.
            sphere = vtkSphereSource.New();
            sphere.SetThetaResolution(8);
            sphere.SetPhiResolution(16);

            shrink = vtkShrinkPolyData.New();
            shrink.SetInputConnection(sphere.GetOutputPort());
            shrink.SetShrinkFactor(0.9);

            mapper = vtkPolyDataMapper.New();
            mapper.SetInputConnection(shrink.GetOutputPort());

            // The actor links the data pipeline to the rendering subsystem
            actor = vtkActor.New();
            actor.SetMapper(mapper);
            actor.GetProperty().SetColor(1, 0, 0);

            // Create components of the rendering subsystem
            //
            ren1 = vtkRenderer.New();
            renWin = vtkRenderWindow.New();
            renWin.AddRenderer(ren1);
            iren = vtkRenderWindowInteractor.New();
            iren.SetRenderWindow(renWin);

            // Add the actors to the renderer, set the window size
            //
            ren1.AddViewProp(actor);
            renWin.SetSize(250, 250);
            renWin.Render();
            camera = ren1.GetActiveCamera();
            camera.Zoom(1.5);

            // render the image and start the event loop
            //
            renWin.Render();

            iren.Initialize();
            iren.Start();

            deleteAllVTKObjects();
        }

    /// <summary>
    /// The main entry method called by the CSharp driver
    /// </summary>
    /// <param name="argv"></param>
    public static void AVTestSpherePuzzle(String [] argv)
    {
        //Prefix Content is: ""

          // prevent the tk window from showing up then start the event loop[]
          renWin = vtkRenderWindow.New();
          // create a rendering window and renderer[]
          ren1 = vtkRenderer.New();
          renWin.AddRenderer((vtkRenderer)ren1);
          renWin.SetSize((int)400,(int)400);
          puzzle = new vtkSpherePuzzle();
          mapper = vtkPolyDataMapper.New();
          mapper.SetInputConnection((vtkAlgorithmOutput)puzzle.GetOutputPort());
          actor = new vtkActor();
          actor.SetMapper((vtkMapper)mapper);
          arrows = new vtkSpherePuzzleArrows();
          mapper2 = vtkPolyDataMapper.New();
          mapper2.SetInputConnection((vtkAlgorithmOutput)arrows.GetOutputPort());
          actor2 = new vtkActor();
          actor2.SetMapper((vtkMapper)mapper2);
          // Add the actors to the renderer, set the background and size[]
          //[]
          ren1.AddActor((vtkProp)actor);
          ren1.AddActor((vtkProp)actor2);
          ren1.SetBackground((double)0.1,(double)0.2,(double)0.4);
          LastVal = -1;
          //method moved
          //method moved
          renWin.Render();
          cam = ren1.GetActiveCamera();
          cam.Elevation((double)-40);
          puzzle.MoveHorizontal((int)0,(int)100,(int)0);
          puzzle.MoveHorizontal((int)1,(int)100,(int)1);
          puzzle.MoveHorizontal((int)2,(int)100,(int)0);
          puzzle.MoveVertical((int)2,(int)100,(int)0);
          puzzle.MoveVertical((int)1,(int)100,(int)0);
          renWin.Render();

        //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();
    }

        /// <summary>
        /// 读取stl文件，并在窗口进行显示，并设置全局变量originalMesh
        /// </summary>
        private void ReadSTL()
        {
            //Path to vtk data must be set as an environment variable
            //VTK_DATA_ROOT=""
            vtkSTLReader reader = vtkSTLReader.New();
            reader.SetFileName(FileFullName);
            reader.Update();
            mapper = vtkPolyDataMapper.New();
            mapper.SetInputConnection(reader.GetOutputPort());

            actor = vtkActor.New();
            actor.SetMapper(mapper);
            //get a reference to the renderwindow of our renderWindowControll
            renderWindow = renderWindowControl1.RenderWindow;
            //renderer
            renderer = renderWindow.GetRenderers().GetFirstRenderer();
            //移除之前所有prop
            renderer.RemoveAllViewProps();
            //set background color
            renderer.SetBackground(0.2, 0.3, 0.4);
            //add our actor to the renderer
            renderer.AddActor(actor);
            originalMesh = vtkPolyData.New();
            originalMesh.DeepCopy(reader.GetOutput());
            tb_numOfPoint.Text = originalMesh.GetNumberOfPoints().ToString();

            //creat a cell picker
            picker = vtkCellPicker.New();
            vtkRenderWindowInteractor iren = renderWindow.GetInteractor();
            iren.SetPicker(picker);

            renderer.ResetCamera();
            renderWindow.Render();
        }

    /// <summary>
    /// The main entry method called by the CSharp driver
    /// </summary>
    /// <param name="argv"></param>
    public static void AVpickCells(String [] argv)
    {
        //Prefix Content is: ""

          ren1 = vtkRenderer.New();
          renWin = vtkRenderWindow.New();
          renWin.AddRenderer((vtkRenderer)ren1);
          iren = new vtkRenderWindowInteractor();
          iren.SetRenderWindow((vtkRenderWindow)renWin);
          // create a scene with one of each cell type[]
          // Voxel[]
          voxelPoints = new vtkPoints();
          voxelPoints.SetNumberOfPoints((int)8);
          voxelPoints.InsertPoint((int)0,(double)0,(double)0,(double)0);
          voxelPoints.InsertPoint((int)1,(double)1,(double)0,(double)0);
          voxelPoints.InsertPoint((int)2,(double)0,(double)1,(double)0);
          voxelPoints.InsertPoint((int)3,(double)1,(double)1,(double)0);
          voxelPoints.InsertPoint((int)4,(double)0,(double)0,(double)1);
          voxelPoints.InsertPoint((int)5,(double)1,(double)0,(double)1);
          voxelPoints.InsertPoint((int)6,(double)0,(double)1,(double)1);
          voxelPoints.InsertPoint((int)7,(double)1,(double)1,(double)1);
          aVoxel = new vtkVoxel();
          aVoxel.GetPointIds().SetId((int)0,(int)0);
          aVoxel.GetPointIds().SetId((int)1,(int)1);
          aVoxel.GetPointIds().SetId((int)2,(int)2);
          aVoxel.GetPointIds().SetId((int)3,(int)3);
          aVoxel.GetPointIds().SetId((int)4,(int)4);
          aVoxel.GetPointIds().SetId((int)5,(int)5);
          aVoxel.GetPointIds().SetId((int)6,(int)6);
          aVoxel.GetPointIds().SetId((int)7,(int)7);
          aVoxelGrid = new vtkUnstructuredGrid();
          aVoxelGrid.Allocate((int)1,(int)1);
          aVoxelGrid.InsertNextCell((int)aVoxel.GetCellType(),(vtkIdList)aVoxel.GetPointIds());
          aVoxelGrid.SetPoints((vtkPoints)voxelPoints);
          aVoxelMapper = new vtkDataSetMapper();
          aVoxelMapper.SetInput((vtkDataSet)aVoxelGrid);
          aVoxelActor = new vtkActor();
          aVoxelActor.SetMapper((vtkMapper)aVoxelMapper);
          aVoxelActor.GetProperty().BackfaceCullingOn();
          // Hexahedron[]
          hexahedronPoints = new vtkPoints();
          hexahedronPoints.SetNumberOfPoints((int)8);
          hexahedronPoints.InsertPoint((int)0,(double)0,(double)0,(double)0);
          hexahedronPoints.InsertPoint((int)1,(double)1,(double)0,(double)0);
          hexahedronPoints.InsertPoint((int)2,(double)1,(double)1,(double)0);
          hexahedronPoints.InsertPoint((int)3,(double)0,(double)1,(double)0);
          hexahedronPoints.InsertPoint((int)4,(double)0,(double)0,(double)1);
          hexahedronPoints.InsertPoint((int)5,(double)1,(double)0,(double)1);
          hexahedronPoints.InsertPoint((int)6,(double)1,(double)1,(double)1);
          hexahedronPoints.InsertPoint((int)7,(double)0,(double)1,(double)1);
          aHexahedron = new vtkHexahedron();
          aHexahedron.GetPointIds().SetId((int)0,(int)0);
          aHexahedron.GetPointIds().SetId((int)1,(int)1);
          aHexahedron.GetPointIds().SetId((int)2,(int)2);
          aHexahedron.GetPointIds().SetId((int)3,(int)3);
          aHexahedron.GetPointIds().SetId((int)4,(int)4);
          aHexahedron.GetPointIds().SetId((int)5,(int)5);
          aHexahedron.GetPointIds().SetId((int)6,(int)6);
          aHexahedron.GetPointIds().SetId((int)7,(int)7);
          aHexahedronGrid = new vtkUnstructuredGrid();
          aHexahedronGrid.Allocate((int)1,(int)1);
          aHexahedronGrid.InsertNextCell((int)aHexahedron.GetCellType(),(vtkIdList)aHexahedron.GetPointIds());
          aHexahedronGrid.SetPoints((vtkPoints)hexahedronPoints);
          aHexahedronMapper = new vtkDataSetMapper();
          aHexahedronMapper.SetInput((vtkDataSet)aHexahedronGrid);
          aHexahedronActor = new vtkActor();
          aHexahedronActor.SetMapper((vtkMapper)aHexahedronMapper);
          aHexahedronActor.AddPosition((double)2,(double)0,(double)0);
          aHexahedronActor.GetProperty().BackfaceCullingOn();
          // Tetra[]
          tetraPoints = new vtkPoints();
          tetraPoints.SetNumberOfPoints((int)4);
          tetraPoints.InsertPoint((int)0,(double)0,(double)0,(double)0);
          tetraPoints.InsertPoint((int)1,(double)1,(double)0,(double)0);
          tetraPoints.InsertPoint((int)2,(double).5,(double)1,(double)0);
          tetraPoints.InsertPoint((int)3,(double).5,(double).5,(double)1);
          aTetra = new vtkTetra();
          aTetra.GetPointIds().SetId((int)0,(int)0);
          aTetra.GetPointIds().SetId((int)1,(int)1);
          aTetra.GetPointIds().SetId((int)2,(int)2);
          aTetra.GetPointIds().SetId((int)3,(int)3);
          aTetraGrid = new vtkUnstructuredGrid();
          aTetraGrid.Allocate((int)1,(int)1);
          aTetraGrid.InsertNextCell((int)aTetra.GetCellType(),(vtkIdList)aTetra.GetPointIds());
          aTetraGrid.SetPoints((vtkPoints)tetraPoints);
          aTetraMapper = new vtkDataSetMapper();
          aTetraMapper.SetInput((vtkDataSet)aTetraGrid);
          aTetraActor = new vtkActor();
          aTetraActor.SetMapper((vtkMapper)aTetraMapper);
          aTetraActor.AddPosition((double)4,(double)0,(double)0);
          aTetraActor.GetProperty().BackfaceCullingOn();
          // Wedge[]
          wedgePoints = new vtkPoints();
          wedgePoints.SetNumberOfPoints((int)6);
          wedgePoints.InsertPoint((int)0,(double)0,(double)1,(double)0);
          wedgePoints.InsertPoint((int)1,(double)0,(double)0,(double)0);
//.........这里部分代码省略.........

//.........这里部分代码省略.........
          aPyramid.GetPointIds().SetId((int)4,(int)4);
          aPyramid.GetPointIds().SetId((int)5,(int)5);
          aPyramid.GetPointIds().SetId((int)6,(int)6);
          aPyramid.GetPointIds().SetId((int)7,(int)7);
          aPyramid.GetPointIds().SetId((int)8,(int)8);
          aPyramid.GetPointIds().SetId((int)9,(int)9);
          aPyramid.GetPointIds().SetId((int)10,(int)10);
          aPyramid.GetPointIds().SetId((int)11,(int)11);
          aPyramid.GetPointIds().SetId((int)12,(int)12);
          aPyramidGrid = new vtkUnstructuredGrid();
          aPyramidGrid.Allocate((int)1,(int)1);
          aPyramidGrid.InsertNextCell((int)aPyramid.GetCellType(),(vtkIdList)aPyramid.GetPointIds());
          aPyramidGrid.SetPoints((vtkPoints)pyraPoints);
          aPyramidGrid.GetPointData().SetScalars((vtkDataArray)pyraScalars);
          pyraContours = new vtkClipDataSet();
          pyraContours.SetInputData((vtkDataObject)aPyramidGrid);
          pyraContours.SetValue((double)0.5);
          aPyramidContourMapper = new vtkDataSetMapper();
          aPyramidContourMapper.SetInputConnection((vtkAlgorithmOutput)pyraContours.GetOutputPort());
          aPyramidContourMapper.ScalarVisibilityOff();
          aPyramidMapper = new vtkDataSetMapper();
          aPyramidMapper.SetInputData((vtkDataSet)aPyramidGrid);
          aPyramidMapper.ScalarVisibilityOff();
          aPyramidActor = new vtkActor();
          aPyramidActor.SetMapper((vtkMapper)aPyramidMapper);
          aPyramidActor.GetProperty().SetRepresentationToWireframe();
          aPyramidActor.GetProperty().SetAmbient((double)1.0);
          aPyramidContourActor = new vtkActor();
          aPyramidContourActor.SetMapper((vtkMapper)aPyramidContourMapper);
          aPyramidContourActor.GetProperty().SetAmbient((double)1.0);
          // Create the rendering related stuff.[]
          // Since some of our actors are a single vertex, we need to remove all[]
          // cullers so the single vertex actors will render[]
          ren1 = vtkRenderer.New();
          ren1.GetCullers().RemoveAllItems();
          renWin = vtkRenderWindow.New();
          renWin.SetMultiSamples(0);
          renWin.AddRenderer((vtkRenderer)ren1);
          iren = new vtkRenderWindowInteractor();
          iren.SetRenderWindow((vtkRenderWindow)renWin);
          ren1.SetBackground((double).1,(double).2,(double).3);
          renWin.SetSize((int)400,(int)200);
          // specify properties[]
          ren1.AddActor((vtkProp)aEdgeActor);
          ren1.AddActor((vtkProp)aTriActor);
          ren1.AddActor((vtkProp)aQuadActor);
          ren1.AddActor((vtkProp)aTetActor);
          ren1.AddActor((vtkProp)aHexActor);
          ren1.AddActor((vtkProp)aWedgeActor);
          ren1.AddActor((vtkProp)aPyramidActor);
          // places everyone!![]
          aTriActor.AddPosition((double)2,(double)0,(double)0);
          aQuadActor.AddPosition((double)4,(double)0,(double)0);
          aTetActor.AddPosition((double)6,(double)0,(double)0);
          aHexActor.AddPosition((double)8,(double)0,(double)0);
          aWedgeActor.AddPosition((double)10,(double)0,(double)0);
          aPyramidActor.AddPosition((double)12,(double)0,(double)0);
          BuildBackdrop(-1, 15, -1, 4, -1, 2, .1);
          ren1.AddActor((vtkProp)base1);
          base1.GetProperty().SetDiffuseColor((double).2,(double).2,(double).2);
          ren1.AddActor((vtkProp)left);
          left.GetProperty().SetDiffuseColor((double).2,(double).2,(double).2);
          ren1.AddActor((vtkProp)back);
          back.GetProperty().SetDiffuseColor((double).2,(double).2,(double).2);
          ren1.ResetCamera();
          ren1.GetActiveCamera().Dolly((double)2.5);

    /// <summary>
    /// An example that does not use a Windows Form
    /// </summary>
    /// <param name="argv"></param>
    public static void Main(String[] argv)
    {
        // This example demonstrates the use of vtkCubeAxesActor2D to indicate the
        // position in space that the camera is currently viewing.
        // The vtkCubeAxesActor2D draws axes on the bounding box of the data set and
        // labels the axes with x-y-z coordinates.
        //
        // First we include the VTK Tcl packages which will make available
        // all of the vtk commands to Tcl
        //
        // Create a vtkBYUReader and read in a data set.
        //
        fohe = vtkBYUReader.New();
        fohe.SetGeometryFileName("../../../teapot.g");

        // Create a vtkPolyDataNormals filter to calculate the normals of the data set.
        normals = vtkPolyDataNormals.New();
        normals.SetInputConnection(fohe.GetOutputPort());

        // Set up the associated mapper and actor.
        foheMapper = vtkPolyDataMapper.New();
        foheMapper.SetInputConnection(normals.GetOutputPort());

        foheActor = vtkLODActor.New();
        foheActor.SetMapper(foheMapper);

        // Create a vtkOutlineFilter to draw the bounding box of the data set.  Also
        // create the associated mapper and actor.
        outline = vtkOutlineFilter.New();
        outline.SetInputConnection(normals.GetOutputPort());

        mapOutline = vtkPolyDataMapper.New();
        mapOutline.SetInputConnection(outline.GetOutputPort());

        outlineActor = vtkActor.New();
        outlineActor.SetMapper(mapOutline);
        outlineActor.GetProperty().SetColor(0, 0, 0);

        // Create a vtkCamera, and set the camera parameters.
        camera = vtkCamera.New();
        camera.SetClippingRange(1.60187, 20.0842);
        camera.SetFocalPoint(0.21406, 1.5, 0);
        camera.SetPosition(8.3761, 4.94858, 4.12505);
        camera.SetViewUp(0.180325, 0.549245, -0.815974);

        // Create a vtkLight, and set the light parameters.
        light = vtkLight.New();
        light.SetFocalPoint(0.21406, 1.5, 0);
        light.SetPosition(8.3761, 4.94858, 4.12505);

        // Create the Renderers.  Assign them the appropriate viewport coordinates,
        // active camera, and light.
        ren1 = vtkRenderer.New();
        ren1.SetViewport(0, 0, 0.5, 1.0);
        ren1.SetActiveCamera(camera);
        ren1.AddLight(light);

        ren2 = vtkRenderer.New();
        ren2.SetViewport(0.5, 0, 1.0, 1.0);
        ren2.SetActiveCamera(camera);
        ren2.AddLight(light);

        // Create the RenderWindow and RenderWindowInteractor.
        renWin = vtkRenderWindow.New();
        renWin.AddRenderer(ren1);
        renWin.AddRenderer(ren2);
        renWin.SetWindowName("VTK - Cube Axes");
        renWin.SetSize(600, 300);
        iren = vtkRenderWindowInteractor.New();
        iren.SetRenderWindow(renWin);

        // Add the actors to the renderer, and set the background.
        ren1.AddViewProp(foheActor);
        ren1.AddViewProp(outlineActor);
        ren2.AddViewProp(foheActor);
        ren2.AddViewProp(outlineActor);
        ren1.SetBackground(0.1, 0.2, 0.4);
        ren2.SetBackground(0.1, 0.2, 0.4);

        // Create a text property for both cube axes
        tprop = vtkTextProperty.New();
        tprop.SetColor(1, 1, 1);
        tprop.ShadowOn();

        // Create a vtkCubeAxesActor2D.  Use the outer edges of the bounding box to
        // draw the axes.  Add the actor to the renderer.
        axes = vtkCubeAxesActor2D.New();
        axes.SetInput(normals.GetOutput());
        axes.SetCamera(ren1.GetActiveCamera());
        axes.SetLabelFormat("%6.4g");
        axes.SetFlyModeToOuterEdges();
        axes.SetFontFactor(0.8);
        axes.SetAxisTitleTextProperty(tprop);
        axes.SetAxisLabelTextProperty(tprop);
        ren1.AddViewProp(axes);

//.........这里部分代码省略.........

    /// <summary>
    /// Entry Point
    /// </summary>
    /// <param name="argv"></param>
    public static void Main(String[] argv)
    {
        // This example demonstrates how to use the vtkLineWidget to seed
        // and manipulate streamlines. Two line widgets are created. One is
        // invoked by pressing 'W', the other by pressing 'L'. Both can exist
        // together.
        // Start by loading some data.
        pl3d = vtkMultiBlockPLOT3DReader.New();
        pl3d.SetXYZFileName("../../../combxyz.bin");
        pl3d.SetQFileName("../../../combq.bin");
        pl3d.SetScalarFunctionNumber(100);
        pl3d.SetVectorFunctionNumber(202);
        pl3d.Update();
        // The line widget is used seed the streamlines.
        lineWidget = vtkLineWidget.New();
        seeds = vtkPolyData.New();

        lineWidget.SetInput(pl3d.GetOutput());
        lineWidget.SetAlignToYAxis();
        lineWidget.PlaceWidget();
        lineWidget.GetPolyData(seeds);
        lineWidget.ClampToBoundsOn();

        rk4 = vtkRungeKutta4.New();
        streamer = vtkStreamLine.New();
        streamer.SetInputData((vtkDataSet)pl3d.GetOutput().GetBlock(0));
        streamer.SetSource(seeds);
        streamer.SetMaximumPropagationTime(100);
        streamer.SetIntegrationStepLength(.2);
        streamer.SetStepLength(.001);
        streamer.SetNumberOfThreads(1);
        streamer.SetIntegrationDirectionToForward();
        streamer.VorticityOn();
        streamer.SetIntegrator(rk4);

        rf = vtkRibbonFilter.New();
        rf.SetInputConnection(streamer.GetOutputPort());
        rf.SetWidth(0.1);
        rf.SetWidthFactor(5);

        streamMapper = vtkPolyDataMapper.New();
        streamMapper.SetInputConnection(rf.GetOutputPort());
        streamMapper.SetScalarRange(pl3d.GetOutput().GetScalarRange()[0], pl3d.GetOutput().GetScalarRange()[1]);
        streamline = vtkActor.New();
        streamline.SetMapper(streamMapper);
        streamline.VisibilityOff();

        // The second line widget is used seed more streamlines.
        lineWidget2 = vtkLineWidget.New();
        seeds2 = vtkPolyData.New();
        lineWidget2.SetInput(pl3d.GetOutput());
        lineWidget2.PlaceWidget();
        lineWidget2.GetPolyData(seeds2);
        lineWidget2.SetKeyPressActivationValue((sbyte)108);

        streamer2 = vtkStreamLine.New();
        streamer2.SetInputDaat((vtkDataSet)pl3d.GetOutput().GetBlock(0));
        streamer2.SetSource(seeds2);
        streamer2.SetMaximumPropagationTime(100);
        streamer2.SetIntegrationStepLength(.2);
        streamer2.SetStepLength(.001);
        streamer2.SetNumberOfThreads(1);
        streamer2.SetIntegrationDirectionToForward();
        streamer2.VorticityOn();
        streamer2.SetIntegrator(rk4);

        rf2 = vtkRibbonFilter.New();
        rf2.SetInputConnection(streamer2.GetOutputPort());
        rf2.SetWidth(0.1);
        rf2.SetWidthFactor(5);

        streamMapper2 = vtkPolyDataMapper.New();
        streamMapper2.SetInputConnection(rf2.GetOutputPort());
        streamMapper2.SetScalarRange(pl3d.GetOutput().GetScalarRange()[0], pl3d.GetOutput().GetScalarRange()[1]);

        streamline2 = vtkActor.New();
        streamline2.SetMapper(streamMapper2);
        streamline2.VisibilityOff();

        outline = vtkStructuredGridOutlineFilter.New();
        outline.SetInputData((vtkDataSet)pl3d.GetOutput().GetBlock(0));

        outlineMapper = vtkPolyDataMapper.New();
        outlineMapper.SetInputConnection(outline.GetOutputPort());
        outlineActor = vtkActor.New();
        outlineActor.SetMapper(outlineMapper);

        // Create the RenderWindow, Renderer and both Actors
        ren1 = vtkRenderer.New();
        renWin = vtkRenderWindow.New();
        renWin.AddRenderer(ren1);
        iren = vtkRenderWindowInteractor.New();
        iren.SetRenderWindow(renWin);

        // Associate the line widget with the interactor
        lineWidget.SetInteractor(iren);
//.........这里部分代码省略.........

    /// <summary>
    /// The main entry method called by the CSharp driver
    /// </summary>
    /// <param name="argv"></param>
    public static void AVTestPolygonWriters(String [] argv)
    {
        //Prefix Content is: ""

          // Create the RenderWindow, Renderer and both Actors[]
          //[]
          ren1 = vtkRenderer.New();
          renWin = vtkRenderWindow.New();
          renWin.AddRenderer((vtkRenderer)ren1);
          iren = new vtkRenderWindowInteractor();
          iren.SetRenderWindow((vtkRenderWindow)renWin);
          // read data[]
          //[]
          input = new vtkPolyDataReader();
          input.SetFileName((string)"" + (VTK_DATA_ROOT.ToString()) + "/Data/brainImageSmooth.vtk");
          //[]
          // generate vectors[]
          clean = new vtkCleanPolyData();
          clean.SetInputConnection((vtkAlgorithmOutput)input.GetOutputPort());
          smooth = new vtkWindowedSincPolyDataFilter();
          smooth.SetInputConnection((vtkAlgorithmOutput)clean.GetOutputPort());
          smooth.GenerateErrorVectorsOn();
          smooth.GenerateErrorScalarsOn();
          smooth.Update();
          mapper = vtkPolyDataMapper.New();
          mapper.SetInputConnection((vtkAlgorithmOutput)smooth.GetOutputPort());
          mapper.SetScalarRange((double)((vtkDataSet)smooth.GetOutput()).GetScalarRange()[0],
          (double)((vtkDataSet)smooth.GetOutput()).GetScalarRange()[1]);
          brain = new vtkActor();
          brain.SetMapper((vtkMapper)mapper);
          // Add the actors to the renderer, set the background and size[]
          //[]
          ren1.AddActor((vtkProp)brain);
          renWin.SetSize((int)320,(int)240);
          ren1.GetActiveCamera().SetPosition((double)149.653,(double)-65.3464,(double)96.0401);
          ren1.GetActiveCamera().SetFocalPoint((double)146.003,(double)22.3839,(double)0.260541);
          ren1.GetActiveCamera().SetViewAngle((double)30);
          ren1.GetActiveCamera().SetViewUp((double)-0.255578,(double)-0.717754,(double)-0.647695);
          ren1.GetActiveCamera().SetClippingRange((double)79.2526,(double)194.052);
          iren.Initialize();
          renWin.Render();
          // render the image[]
          //[]
          // prevent the tk window from showing up then start the event loop[]
          //[]
          // 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");
          //[]
          //[]
          // test the writers[]
          dsw = new vtkDataSetWriter();
          dsw.SetInputConnection((vtkAlgorithmOutput)smooth.GetOutputPort());
          dsw.SetFileName((string)"brain.dsw");
          dsw.Write();
          File.Delete("brain.dsw");
          pdw = new vtkPolyDataWriter();
          pdw.SetInputConnection((vtkAlgorithmOutput)smooth.GetOutputPort());
          pdw.SetFileName((string)"brain.pdw");
          pdw.Write();
          File.Delete("brain.pdw");
          iv = new vtkIVWriter();
          iv.SetInputConnection((vtkAlgorithmOutput)smooth.GetOutputPort());
          iv.SetFileName((string)"brain.iv");
          iv.Write();
          File.Delete("brain.iv");

          //[]
          // the next writers only handle triangles[]
          triangles = new vtkTriangleFilter();
          triangles.SetInputConnection((vtkAlgorithmOutput)smooth.GetOutputPort());
          iv2 = new vtkIVWriter();
          iv2.SetInputConnection((vtkAlgorithmOutput)triangles.GetOutputPort());
          iv2.SetFileName((string)"brain2.iv");
          iv2.Write();
          File.Delete("brain2.iv");

          edges = new vtkExtractEdges();
          edges.SetInputConnection((vtkAlgorithmOutput)triangles.GetOutputPort());
          iv3 = new vtkIVWriter();
          iv3.SetInputConnection((vtkAlgorithmOutput)edges.GetOutputPort());
          iv3.SetFileName((string)"brain3.iv");
          iv3.Write();
          File.Delete("brain3.iv");

//.........这里部分代码省略.........

    /// <summary>
    /// The main entry method called by the CSharp driver
    /// </summary>
    /// <param name="argv"></param>
    public static void AVSelectionLoop(String [] argv)
    {
        //Prefix Content is: ""

          //[]
          // Demonstrate the use of implicit selection loop as well as closest point[]
          // connectivity[]
          //[]
          // create pipeline[]
          //[]
          sphere = new vtkSphereSource();
          sphere.SetRadius((double)1);
          sphere.SetPhiResolution((int)100);
          sphere.SetThetaResolution((int)100);
          selectionPoints = new vtkPoints();
          selectionPoints.InsertPoint((int)0,(double)0.07325,(double)0.8417,(double)0.5612);
          selectionPoints.InsertPoint((int)1,(double)0.07244,(double)0.6568,(double)0.7450);
          selectionPoints.InsertPoint((int)2,(double)0.1727,(double)0.4597,(double)0.8850);
          selectionPoints.InsertPoint((int)3,(double)0.3265,(double)0.6054,(double)0.7309);
          selectionPoints.InsertPoint((int)4,(double)0.5722,(double)0.5848,(double)0.5927);
          selectionPoints.InsertPoint((int)5,(double)0.4305,(double)0.8138,(double)0.4189);
          loop = new vtkImplicitSelectionLoop();
          loop.SetLoop((vtkPoints)selectionPoints);
          extract = new vtkExtractGeometry();
          extract.SetInputConnection((vtkAlgorithmOutput)sphere.GetOutputPort());
          extract.SetImplicitFunction((vtkImplicitFunction)loop);
          connect = new vtkConnectivityFilter();
          connect.SetInputConnection((vtkAlgorithmOutput)extract.GetOutputPort());
          connect.SetExtractionModeToClosestPointRegion();
          connect.SetClosestPoint((double)selectionPoints.GetPoint((int)0)[0], (double)selectionPoints.GetPoint((int)0)[1],(double)selectionPoints.GetPoint((int)0)[2]);
          clipMapper = new vtkDataSetMapper();
          clipMapper.SetInputConnection((vtkAlgorithmOutput)connect.GetOutputPort());
          backProp = new vtkProperty();
          backProp.SetDiffuseColor((double) 1.0000, 0.3882, 0.2784 );
          clipActor = new vtkActor();
          clipActor.SetMapper((vtkMapper)clipMapper);
          clipActor.GetProperty().SetColor((double) 0.2000, 0.6300, 0.7900 );
          clipActor.SetBackfaceProperty((vtkProperty)backProp);
          // Create graphics stuff[]
          //[]
          ren1 = vtkRenderer.New();
          renWin = vtkRenderWindow.New();
          renWin.AddRenderer((vtkRenderer)ren1);
          iren = new vtkRenderWindowInteractor();
          iren.SetRenderWindow((vtkRenderWindow)renWin);
          // Add the actors to the renderer, set the background and size[]
          //[]
          ren1.AddActor((vtkProp)clipActor);
          ren1.SetBackground((double)1,(double)1,(double)1);
          ren1.ResetCamera();
          ren1.GetActiveCamera().Azimuth((double)30);
          ren1.GetActiveCamera().Elevation((double)30);
          ren1.GetActiveCamera().Dolly((double)1.2);
          ren1.ResetCameraClippingRange();
          renWin.SetSize((int)400,(int)400);
          renWin.Render();
          // render the image[]
          //[]
          // 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 );

            // Add an observer to the render window.
            ren1.AddObserver((uint) EventIds.StartEvent,
                new vtkDotNetCallback(PrintCameraPosition));

            //
            // now we loop over 360 degreeees and render the cone each time
            //
            for ( int i=0; i<360; i++ )
            {
                System.Threading.Thread.Sleep(30);

                renWin.Render();
                ren1.GetActiveCamera().Azimuth( 1 );
            }

            vtkWin32OpenGLRenderWindow win32win =
                vtkWin32OpenGLRenderWindow.SafeDownCast(renWin);
            if (null != win32win) win32win.Clean();
        }

    /// <summary>
    /// The main entry method called by the CSharp driver
    /// </summary>
    /// <param name="argv"></param>
    public static void AVTestGridSynchronizedTemplates3D(String [] argv)
    {
        //Prefix Content is: ""

          // cut data[]
          pl3d = new vtkMultiBlockPLOT3DReader();
          pl3d.SetXYZFileName((string)"" + (VTK_DATA_ROOT.ToString()) + "/Data/combxyz.bin");
          pl3d.SetQFileName((string)"" + (VTK_DATA_ROOT.ToString()) + "/Data/combq.bin");
          pl3d.SetScalarFunctionNumber((int)100);
          pl3d.SetVectorFunctionNumber((int)202);
          pl3d.Update();
          range = ((vtkDataSet)pl3d.GetOutput().GetBlock(0)).GetPointData().GetScalars().GetRange();
          min = (double)(lindex(range,0));
          max = (double)(lindex(range,1));
          value = (min+max)/2.0;
          //vtkGridSynchronizedTemplates3D cf[]
          cf = new vtkContourFilter();
          cf.SetInputData((vtkDataSet)pl3d.GetOutput().GetBlock(0));
          cf.SetValue((int)0,(double)value);
          //cf ComputeNormalsOff[]
          cfMapper = vtkPolyDataMapper.New();
          cfMapper.ImmediateModeRenderingOn();
          cfMapper.SetInputConnection((vtkAlgorithmOutput)cf.GetOutputPort());
          cfMapper.SetScalarRange((double)((vtkDataSet)pl3d.GetOutput().GetBlock(0)).GetPointData().GetScalars().GetRange()[0], (double)((vtkDataSet)pl3d.GetOutput().GetBlock(0)).GetPointData().GetScalars().GetRange()[1]);
          cfActor = new vtkActor();
          cfActor.SetMapper((vtkMapper)cfMapper);
          //outline[]
          outline = new vtkStructuredGridOutlineFilter();
          outline.SetInputData((vtkDataSet)pl3d.GetOutput().GetBlock(0));
          outlineMapper = vtkPolyDataMapper.New();
          outlineMapper.SetInputConnection((vtkAlgorithmOutput)outline.GetOutputPort());
          outlineActor = new vtkActor();
          outlineActor.SetMapper((vtkMapper)outlineMapper);
          outlineActor.GetProperty().SetColor((double)0,(double)0,(double)0);
          //# Graphics stuff[]
          // Create the RenderWindow, Renderer and both Actors[]
          //[]
          ren1 = vtkRenderer.New();
          renWin = vtkRenderWindow.New();
          renWin.SetMultiSamples(0);
          renWin.AddRenderer((vtkRenderer)ren1);
          iren = new vtkRenderWindowInteractor();
          iren.SetRenderWindow((vtkRenderWindow)renWin);
          // Add the actors to the renderer, set the background and size[]
          //[]
          ren1.AddActor((vtkProp)outlineActor);
          ren1.AddActor((vtkProp)cfActor);
          ren1.SetBackground((double)1,(double)1,(double)1);
          renWin.SetSize((int)400,(int)400);
          cam1 = ren1.GetActiveCamera();
          cam1.SetClippingRange((double)3.95297,(double)50);
          cam1.SetFocalPoint((double)9.71821,(double)0.458166,(double)29.3999);
          cam1.SetPosition((double)2.7439,(double)-37.3196,(double)38.7167);
          cam1.SetViewUp((double)-0.16123,(double)0.264271,(double)0.950876);
          iren.Initialize();
          // render the image[]
          //[]
          // loop over surfaces[]
          i = 0;
          while((i) < 17)
        {
          cf.SetValue((int)0,(double)min+(i/16.0)*(max-min));
          renWin.Render();
          i = i + 1;
        }

          cf.SetValue((int)0,(double)min+(0.2)*(max-min));
          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 AVgaussian(String [] argv)
    {
        //Prefix Content is: ""

          ren1 = vtkRenderer.New();
          renWin = vtkRenderWindow.New();
          renWin.AddRenderer((vtkRenderer)ren1);
          renWin.SetSize((int)300,(int)300);
          iren = new vtkRenderWindowInteractor();
          iren.SetRenderWindow((vtkRenderWindow)renWin);
          camera = new vtkCamera();
          camera.ParallelProjectionOn();
          camera.SetViewUp((double)0,(double)1,(double)0);
          camera.SetFocalPoint((double)12,(double)10.5,(double)15);
          camera.SetPosition((double)-70,(double)15,(double)34);
          camera.ComputeViewPlaneNormal();
          ren1.SetActiveCamera((vtkCamera)camera);
          // Create the reader for the data[]
          //vtkStructuredPointsReader reader[]
          reader = new vtkGaussianCubeReader();
          reader.SetFileName((string)"" + (VTK_DATA_ROOT.ToString()) + "/Data/m4_TotalDensity.cube");
          reader.SetHBScale((double)1.1);
          reader.SetBScale((double)10);
          reader.Update();
          range = reader.GetGridOutput().GetPointData().GetScalars().GetRange();
          min = (double)(lindex(range,0));
          max = (double)(lindex(range,1));
          readerSS = new vtkImageShiftScale();
          readerSS.SetInput((vtkDataObject)reader.GetGridOutput());
          readerSS.SetShift((double)min*-1);
          readerSS.SetScale((double)255/(max-min));
          readerSS.SetOutputScalarTypeToUnsignedChar();
          bounds = new vtkOutlineFilter();
          bounds.SetInput((vtkDataObject)reader.GetGridOutput());
          boundsMapper = vtkPolyDataMapper.New();
          boundsMapper.SetInputConnection((vtkAlgorithmOutput)bounds.GetOutputPort());
          boundsActor = new vtkActor();
          boundsActor.SetMapper((vtkMapper)boundsMapper);
          boundsActor.GetProperty().SetColor((double)0,(double)0,(double)0);
          contour = new vtkContourFilter();
          contour.SetInput((vtkDataObject)reader.GetGridOutput());
          contour.GenerateValues((int)5,(double)0,(double).05);
          contourMapper = vtkPolyDataMapper.New();
          contourMapper.SetInputConnection((vtkAlgorithmOutput)contour.GetOutputPort());
          contourMapper.SetScalarRange((double)0,(double).1);
          ((vtkLookupTable)contourMapper.GetLookupTable()).SetHueRange(0.32,0);
          contourActor = new vtkActor();
          contourActor.SetMapper((vtkMapper)contourMapper);
          contourActor.GetProperty().SetOpacity((double).5);
          // Create transfer mapping scalar value to opacity[]
          opacityTransferFunction = new vtkPiecewiseFunction();
          opacityTransferFunction.AddPoint((double)0,(double)0.01);
          opacityTransferFunction.AddPoint((double)255,(double)0.35);
          opacityTransferFunction.ClampingOn();
          // Create transfer mapping scalar value to color[]
          colorTransferFunction = new vtkColorTransferFunction();
          colorTransferFunction.AddHSVPoint((double)0.0,(double)0.66,(double)1.0,(double)1.0);
          colorTransferFunction.AddHSVPoint((double)50.0,(double)0.33,(double)1.0,(double)1.0);
          colorTransferFunction.AddHSVPoint((double)100.0,(double)0.00,(double)1.0,(double)1.0);
          // The property describes how the data will look[]
          volumeProperty = new vtkVolumeProperty();
          volumeProperty.SetColor((vtkColorTransferFunction)colorTransferFunction);
          volumeProperty.SetScalarOpacity((vtkPiecewiseFunction)opacityTransferFunction);
          volumeProperty.SetInterpolationTypeToLinear();
          // The mapper / ray cast function know how to render the data[]
          compositeFunction = new vtkVolumeRayCastCompositeFunction();
          volumeMapper = new vtkVolumeRayCastMapper();
          //vtkVolumeTextureMapper2D volumeMapper[]
          volumeMapper.SetVolumeRayCastFunction((vtkVolumeRayCastFunction)compositeFunction);
          volumeMapper.SetInputConnection((vtkAlgorithmOutput)readerSS.GetOutputPort());
          // The volume holds the mapper and the property and[]
          // can be used to position/orient the volume[]
          volume = new vtkVolume();
          volume.SetMapper((vtkAbstractVolumeMapper)volumeMapper);
          volume.SetProperty((vtkVolumeProperty)volumeProperty);
          ren1.AddVolume((vtkProp)volume);
          //ren1 AddActor contourActor[]
          ren1.AddActor((vtkProp)boundsActor);
          //#####################################################################[]
          Sphere = new vtkSphereSource();
          Sphere.SetCenter((double)0,(double)0,(double)0);
          Sphere.SetRadius((double)1);
          Sphere.SetThetaResolution((int)16);
          Sphere.SetStartTheta((double)0);
          Sphere.SetEndTheta((double)360);
          Sphere.SetPhiResolution((int)16);
          Sphere.SetStartPhi((double)0);
          Sphere.SetEndPhi((double)180);
          Glyph = new vtkGlyph3D();
          Glyph.SetInputConnection((vtkAlgorithmOutput)reader.GetOutputPort());
          Glyph.SetOrient((int)1);
          Glyph.SetColorMode((int)1);
          //Glyph ScalingOn[]
          Glyph.SetScaleMode((int)2);
          Glyph.SetScaleFactor((double).6);
          Glyph.SetSource((vtkPolyData)Sphere.GetOutput());
//.........这里部分代码省略.........

//.........这里部分代码省略.........
          // this one is constant 1[]
          constant1 = new vtkPiecewiseFunction();
          constant1.AddPoint((double)0,(double)1.0);
          constant1.AddPoint((double)255,(double)1.0);
          // this one is used for gradient opacity[]
          gop = new vtkPiecewiseFunction();
          gop.AddPoint((double)0,(double)0.0);
          gop.AddPoint((double)20,(double)0.0);
          gop.AddPoint((double)60,(double)1.0);
          gop.AddPoint((double)255,(double)1.0);
          // We need a bunch of color functions[]
          // This one is a simple rainbow[]
          rainbow = new vtkColorTransferFunction();
          rainbow.SetColorSpaceToHSV();
          rainbow.HSVWrapOff();
          rainbow.AddHSVPoint((double)0,(double)0.1,(double)1.0,(double)1.0);
          rainbow.AddHSVPoint((double)255,(double)0.9,(double)1.0,(double)1.0);
          // this is constant red[]
          red = new vtkColorTransferFunction();
          red.AddRGBPoint((double)0,(double)1,(double)0,(double)0);
          red.AddRGBPoint((double)255,(double)1,(double)0,(double)0);
          // this is constant green[]
          green = new vtkColorTransferFunction();
          green.AddRGBPoint((double)0,(double)0,(double)1,(double)0);
          green.AddRGBPoint((double)255,(double)0,(double)1,(double)0);
          // this is constant blue[]
          blue = new vtkColorTransferFunction();
          blue.AddRGBPoint((double)0,(double)0,(double)0,(double)1);
          blue.AddRGBPoint((double)255,(double)0,(double)0,(double)1);
          // this is constant yellow[]
          yellow = new vtkColorTransferFunction();
          yellow.AddRGBPoint((double)0,(double)1,(double)1,(double)0);
          yellow.AddRGBPoint((double)255,(double)1,(double)1,(double)0);
          ren1 = vtkRenderer.New();
          renWin = vtkRenderWindow.New();
          renWin.AddRenderer((vtkRenderer)ren1);
          renWin.SetSize((int)500,(int)500);
          iren = new vtkRenderWindowInteractor();
          iren.SetRenderWindow((vtkRenderWindow)renWin);
          ren1.GetCullers().InitTraversal();
          culler = (vtkFrustumCoverageCuller)ren1.GetCullers().GetNextItem();
          culler.SetSortingStyleToBackToFront();
          // We need 25 mapper / actor pairs which we will render[]
          // in a grid. Going down we will vary the input data[]
          // with the top row unsigned char, then float, then[]
          // two dependent components, then four dependent components[]
          // then four independent components. Going across we[]
          // will vary the rendering method with MIP, Composite,[]
          // Composite Shade, Composite GO, and Composite GO Shade.[]
          j = 0;
          while((j) < 5)
        {
          i = 0;
          while((i) < 5)
        {
          volumeProperty[i,j] = new vtkVolumeProperty();
          volumeMapper[i,j] = new vtkFixedPointVolumeRayCastMapper();
          volumeMapper[i,j].SetSampleDistance((float)0.25);
          volume[i,j] = new vtkVolume();
          volume[i,j].SetMapper((vtkAbstractVolumeMapper)volumeMapper[i,j]);
          volume[i,j].SetProperty((vtkVolumeProperty)volumeProperty[i,j]);
          volume[i,j].AddPosition((double)i*30,(double)j*30,(double)0);
          ren1.AddVolume((vtkProp)volume[i,j]);
          i = i + 1;
        }