public ConferenceRoom(GraphicsInterface gi, Vector3D roomSize)
: base(gi, roomSize, new Vector3D(0, roomSize.Y / 2.0f, 0), new Resolution(10, 10))
{
fWallTexture = TextureHelper.CreateTextureFromFile(gi, "Textures\\Wall.tiff", false);
fCeilingTexture = TextureHelper.CreateTextureFromFile(gi, "Textures\\Ceiling.tiff", false);
fFloorTexture = TextureHelper.CreateTextureFromFile(gi, "Textures\\Carpet_berber_dirt.jpg", false);
fChildren = new List<IRenderable>();
SetWallTexture(AABBFace.Ceiling, fCeilingTexture);
SetWallTexture(AABBFace.Floor, fFloorTexture);
SetWallTexture(AABBFace.Front, fWallTexture);
SetWallTexture(AABBFace.Back, fWallTexture);
SetWallTexture(AABBFace.Left, fWallTexture);
SetWallTexture(AABBFace.Right, fWallTexture);
Vector3D wbSize = new Vector3D(4.0f-(0.305f*2.0f), 3.0f, 0.01f);
Point3D wbTrans = new Point3D(0, (wbSize.Y/2)+(roomSize.Y-wbSize.Y)/2, -roomSize.Z / 2.0f+.02f);
AABB wbBB = new AABB(wbSize, wbTrans);
whiteboard = new Whiteboard(gi, wbBB);
//whiteboard.ImageSource = localCamProjector;
fTable = new PedestalTable(gi);
fChildren.Add(whiteboard);
fChildren.Add(fTable);
}
public Cube(GraphicsInterface gi, Vector3D size, GLTexture texture)
:base(gi, BeginMode.Quads)
{
fSize = size;
Texture = texture;
CreateMesh();
}
/// <summary>
/// To construct a mesh, we need to know the size and resolution.
/// We also set the texture as a convenience.
/// </summary>
/// <param name="boundary">The size on the XY plane. The value is not used.</param>
/// <param name="res">The resolution determines how many rows and columns of quads will be generated.</param>
/// <param name="texture">An optional texture object to be bound to the mesh.
/// Normalized texture coordinates will be generated whether a texture object is assigned or not.</param>
public XYAxesPointMesh(GraphicsInterface gi, Vector3D boundary, Resolution res, GLTexture texture)
: base(gi, BeginMode.Points)
{
fSize = boundary;
fResolution = res;
Texture = texture;
CreateMesh();
}
public void SetupTexture()
{
//fCamera1 = VideoTexture.CreateFromDeviceIndex(GI, 0, 320, 240);
//fCamera2 = VideoTexture.CreateFromDeviceIndex(GI, 1, 320, 240);
fCamera1 = VideoTexture.CreateFromDeviceIndex(GI, 0, true);
fCamera2 = VideoTexture.CreateFromDeviceIndex(GI, 1, true);
fPictureTexture = TextureHelper.CreateTextureFromFile(GI, "EELogo.jpg", false);
flagTexture = fPictureTexture;
}
protected override void OnSetContext()
{
fSmallStars = new StarField2D(GI, SMALL_STARS, 7.0f, new Vector2i(SCREEN_X, SCREEN_Y));
fMediumStars = new StarField2D(GI, MEDIUM_STARS, 12.0f, new Vector2i(SCREEN_X * 10, SCREEN_Y));
fLargeStars = new StarField2D(GI, LARGE_STARS, 20.0f, new Vector2i(SCREEN_X * 10, SCREEN_Y));
// Load moon texture
GLPixelData pBytes;
pBytes = TargaHandler.CreatePixelDataFromFile("moon.tga");
fMoonTexture = new GLTexture(GI, pBytes, true);
}
protected override void OnSetContext()
{
GraphicsInterface.gCheckErrors = true;
GI.Features.DepthTest.Enable();
// Medium Cyan background
GI.Buffers.ColorBuffer.Color = ColorRGBA.MediumCyan;
// Cull backs of polygons
//GI.CullFace(GLFace.Back);
GI.FrontFace(FrontFaceDirection.Ccw);
//GI.Enable(GLOption.CullFace);
GI.Features.DepthTest.Enable();
SetupLighting();
// Mostly use material tracking
GI.Features.ColorMaterial.Enable();
GI.ColorMaterial(GLFace.FrontAndBack, ColorMaterialParameter.AmbientAndDiffuse);
GI.Material(GLFace.FrontAndBack, MaterialParameter.Shininess, 128);
string PanoramicName = "Microsoft RoundTable Panoramic Video";
string SpeakerName = "Microsoft RoundTable Active Speaker Video";
fWallTexture = VideoTexture.CreateFromDevicePath(GI, PanoramicName, -1, -1, true);
if (null == fWallTexture)
{
fWallTexture = TextureHelper.CreateCheckerboardTexture(GI, 512, 512, 16);
}
else
{
((VideoTexture)fWallTexture).Start();
}
fCubeTexture = VideoTexture.CreateFromDevicePath(GI, SpeakerName, -1, -1, true);
if (fCubeTexture == null)
{
fCubeTexture = VideoTexture.CreateFromDeviceIndex(GI, 0, true);
if (fCubeTexture == null)
{
fCubeTexture = TextureHelper.CreateCheckerboardTexture(GI, 512, 512, 8);
}
}
else
{
((VideoTexture)fCubeTexture).Start();
}
fWallCylinder = new WallCylinder(GI, fWallTexture, fExpansionFactor);
fSpeakerCube = new SpeakerCube(GI, fCubeTexture);
}
public TexturedCheckerboard(Size pixelSize, Size blockSize, GLTexture tex1, GLTexture tex2)
{
Translation = new Vector3f();
Rotation = new Vector3f();
PixelSize = pixelSize;
BlockSize = blockSize;
fTexture1 = tex1;
fTexture2 = tex2;
}
public SpeakerCube(GraphicsInterface gi, GLTexture faceTexture)
:base(gi, faceTexture, 4, 4.0f, 4.0f, 10, 10, 1.0f)
{
Translation = new float3(0, 4.0f, 0.0);
fSpeakerSeparation = 0.30f;
// Sections displaying current speaker
fSpeakerSection0 = new CylinderSection(GI, 4.0f, 4.0f, 45, 10, 10);
fSpeakerSection90 = new CylinderSection(GI, 4.0f, 4.0f, 45, 10, 10);
fSpeakerSection180 = new CylinderSection(GI, 4.0f, 4.0f, 45, 10, 10);
fSpeakerSection270 = new CylinderSection(GI, 4.0f, 4.0f, 45, 10, 10);
}
/// <summary>
/// Construct a cube of the given size. Initially, the cube starts as a
/// unit cube, being 1 unit in all directions, with its center located
/// at the origin (0,0,0). The scaling is applied, then the translation.
/// This way, you can specify a solid rectangular volume of any dimension
/// and put it anywhere in the scene.
/// </summary>
/// <param name="scale">A vector describing the scale</param>
/// <param name="translation">A vector describing the translation</param>
public AABBSurface(GraphicsInterface gi, Vector3D roomSize, Vector3D translation, Resolution res)
{
GI = gi;
fAxes = new GLAxes(roomSize.Y);
// Setup scale and translation
fRoomSize = roomSize;
fTranslation = translation;
fResolution = res;
fDefaultTexture = TextureHelper.CreateCheckerboardTexture(gi, 256, 256, 16);
// Create the six walls of the room
fWalls = new Dictionary<AABBFace, AABBFaceMesh>(6);
AddWalls();
}
public MasterCylinder(GraphicsInterface gi, GLTexture texture, int numberOfSections, float radius, float height, int stacks, int slices, float expanseFactor)
{
GI = gi;
CylinderTexture = texture;
NumberOfSections = numberOfSections;
Radius = radius;
Height = height;
Stacks = stacks;
Slices = slices;
ArcDegrees = 360 / numberOfSections;
ExpansionFactor = expanseFactor;
ConstructSections();
}
public GLTexture ForwardDCT(GLTexture sourceImage)
{
if (null == sourceImage)
return null;
// First, create an array of points that divide
// the texture into 8x8 chunks
// We require 4 passes of drawing to actually get
// all the output values, so perform each of those
// passes, changing the quadrant each time.
// Use a quadrant specific shader program for each pass
// pass1
// pass2
// pass3
// pass4
// At this point, the full DCT should be contained in the output
// image, so we can just return it.
return fDCTOutputTexture;
}
protected override void OnSetContext()
{
fSepiaProgram = GLSLShaderProgram.CreateUsingVertexAndFragmentStrings(GI, null, Shaders.ShaderStrings.sepia_fs);
int numSources = VideoCaptureDevice.GetNumberOfInputDevices();
if (numSources > 0)
{
fVideoTexture1 = VideoTexture.CreateFromDeviceIndex(GI, 0, true);
}
else
fVideoTexture1 = TextureHelper.CreateCheckerboardTexture(GI, 320, 240, 8);
fVideoTexture1.Unbind();
if (numSources > 1)
{
fVideoTexture2 = VideoTexture.CreateFromDeviceIndex(GI, 1, true);
}
else
fVideoTexture2 = TextureHelper.CreateCheckerboardTexture(GI, 320, 240, 16);
fVideoTexture2.Unbind();
//if (numSources > 2)
//{
// fVideoTexture2 = VideoTexture.CreateFromDeviceIndex(GI, 2, true);
//}
fCheckerboard = new TexturedCheckerboard(new Size(fViewportWidth, fViewportHeight),
new Size(fHowManySplits, fHowManySplits), fVideoTexture1, fVideoTexture2);
// Turn off features that we don't need
// they just slow down video processing
GI.Features.AlphaTest.Disable();
GI.Features.Blend.Disable();
GI.Features.DepthTest.Disable();
GI.Features.Dither.Disable();
GI.Features.Fog.Disable();
GI.Features.Lighting.Disable();
}
void DrawSpeakerCube()
{
GI.TexParameter(TextureParameterTarget.Texture2d, TextureParameterName.TextureMinFilter, TextureMinFilter.Linear);
GI.TexParameter(TextureParameterTarget.Texture2d, TextureParameterName.TextureMagFilter, TextureMagFilter.Linear);
GI.TexParameter(TextureParameterTarget.Texture2d, TextureParameterName.TextureWrapS, TextureWrapMode.Clamp);
GI.TexParameter(TextureParameterTarget.Texture2d, TextureParameterName.TextureWrapT, TextureWrapMode.Clamp);
GI.TexEnv(TextureEnvModeParam.Modulate);
GI.Features.Texturing2D.Enable();
// Set drawing color to white
//GI.Drawing.Color = ColorRGBA.White;
//GI.FrontFace(FrontFaceDirection.Cw);
if (null != fViewer && fViewer.TexTure != null)
fDesktopTexture = fViewer.TexTure;
GI.PolygonMode(GLFace.Front, PolygonMode.Fill);
// Draw Section 0
fDesktopTexture.Bind();
GI.PushMatrix();
GI.Rotate(0, 0, 1, 0);
GI.Translate(0, 4, fSpeakerSection0.Radius * fSpeakerSeparation);
fSpeakerSection0.Render(GI);
GI.PopMatrix();
fDesktopTexture.Unbind();
// Draw Section 90
fSpeakerTexture.Bind();
GI.PushMatrix();
GI.Rotate(90, 0, 1, 0);
GI.Translate(0, 4, fSpeakerSection90.Radius * fSpeakerSeparation);
fSpeakerSection90.Render(GI);
GI.PopMatrix();
fSpeakerTexture.Unbind();
// Draw Section 180
fDesktopTexture.Bind();
GI.PushMatrix();
GI.Rotate(180, 0, 1, 0);
GI.Translate(0, 4, fSpeakerSection180.Radius * fSpeakerSeparation);
fSpeakerSection180.Render(GI);
GI.PopMatrix();
fDesktopTexture.Unbind();
// Draw Section 270
fSpeakerTexture.Bind();
GI.PushMatrix();
GI.Rotate(270, 0, 1, 0);
GI.Translate(0, 4, fSpeakerSection270.Radius * fSpeakerSeparation);
fSpeakerSection270.Render(GI);
GI.PopMatrix();
fSpeakerTexture.Unbind();
}
protected override void OnSetContext()
{
//fTexture = new GLTexture(CHECKIMAGEWIDTH, CHECKIMAGEHEIGHT);
if (fTexture == null)
fTexture = TextureHelper.CreateCheckerboardTexture(GI, CHECKIMAGEWIDTH, CHECKIMAGEHEIGHT, CHECKIMAGEBLOCKSIZE);
}
public virtual void ProjectTexture(GLTexture texture)
{
fSurface.SetWallTexture(AABBFace.Front, texture);
fSurface.SetWallTexture(AABBFace.Back, texture);
}
protected override void OnSetContext()
{
// When debugging, it's nice to turn on the following check.
// If you do, whenever there is an error while calling one of the
// underlying OpenGL functions, a GLException will be thrown.
// If this flag is not set, then errors will be silently passed by and
// rendering will continue.
//GraphicsInterface.gCheckErrors = true;
// Enable a couple of features for nice rendering.
// For this program, Texturing, and DepthTest are essential.
// The hint for perspective correction is optional
GI.Features.Texturing2D.Enable();
GI.Features.DepthTest.Enable();
GI.Hint(HintTarget.PerspectiveCorrectionHint, HintMode.Nicest);
// Set an overall color buffer background color of Invisible,
// so when we clear the color buffer, it starts out blank.
GI.Buffers.ColorBuffer.Color = ColorRGBA.Invisible;
// Create the offscreen render target
fRenderTarget = new GLRenderTarget(GI, fOffscreenWidth, fOffscreenHeight);
// Create the texture object that we will be using to do normal rendering.
//
aTexture = TextureHelper.CreateTextureFromFile(GI, "tex.png", false);
// Create the shader programs using the easy static method that
// takes vertex and fragment shader strings.
fFixedPipeline = GLSLShaderProgram.CreateUsingVertexAndFragmentStrings(GI, ShaderStrings.FixedVert, ShaderStrings.FixedFrag);
fImageProcProgram = GLSLShaderProgram.CreateUsingVertexAndFragmentStrings(GI, ShaderStrings.FixedVert, ShaderStrings.ConvolutionFrag);
// This is an alternate method of creating the shader programs.
// You get absolute control of the individual pieces as they
// are created, at the cost of brevity
//GLSLVertexShader fixedVertexShader = new GLSLVertexShader(GI, ShaderStrings.FixedVert);
//GLSLFragmentShader fixedFragmentShader = new GLSLFragmentShader(GI, ShaderStrings.FixedFrag);
//GLSLFragmentShader convolutionFragmentShader = new GLSLFragmentShader(GI, ShaderStrings.ConvolutionFrag);
//// Create the pipeline shader program
//fFixedPipeline = new GLSLShaderProgram(GI);
//fFixedPipeline.AttachShader(fixedVertexShader);
//fFixedPipeline.AttachShader(fixedFragmentShader);
//fFixedPipeline.Link();
//// Create the convolution shader program
//fImageProcProgram = new GLSLShaderProgram(GI);
//fImageProcProgram.AttachShader(fixedVertexShader);
//fImageProcProgram.AttachShader(convolutionFragmentShader);
//fImageProcProgram.Link();
}
public WallCylinder(GraphicsInterface gi, GLTexture wallTexture, float expanseFactor)
:base(gi, wallTexture, 5, 14.0f, 12.0f, 10, 10, expanseFactor)
{
}
/// <summary>
/// Create a mesh object that represents the wall.
///
/// </summary>
/// <param name="roomSize">The size of the room</param>
/// <param name="whichWall">Which wall of the room are we creating</param>
/// <param name="res">The Resolution of the mesh, meaning, the number of rows and columns of quads to create.</param>
/// <returns>The mesh3D object representing the wall</returns>
public static AABBFaceMesh CreateFace(GraphicsInterface gi, Vector3D roomSize, AABBFace whichWall, Resolution res, GLTexture texture)
{
AABBFaceMesh wall = new AABBFaceMesh(gi, roomSize, whichWall);
Vector3f[] vertices = new Vector3f[(res.Columns)*(res.Rows)*4];
TextureCoordinates[] texCoords = new TextureCoordinates[(res.Columns) * (res.Rows)*4];
int[] indices = new int[res.Columns * res.Rows * 4];
// The general routine is to create a mesh in the x-y plane, using
// the appropriate width and height.
// Then take this mesh and rotate and translate it into the right position
// after it is created.
// First calculate the min/max values in the x-y plane
float minX=0.0f;
float maxX=0.0f;
float minY=0.0f;
float maxY=0.0f;
switch (whichWall)
{
case AABBFace.Front:
case AABBFace.Back:
minX = roomSize.X / -2;
maxX = roomSize.X / 2;
minY = roomSize.Y / -2;
maxY = roomSize.Y / 2;
break;
case AABBFace.Left:
case AABBFace.Right:
minX = roomSize.Z / -2;
maxX = roomSize.Z / 2;
minY = roomSize.Y / -2;
maxY = roomSize.Y / 2;
break;
case AABBFace.Ceiling:
case AABBFace.Floor:
minX = roomSize.X / -2;
maxX = roomSize.X / 2;
minY = roomSize.Z / -2;
maxY = roomSize.Z / 2;
break;
}
// Now that we have the min/max sizes in the x-y plane
// Construct the quad vertices based on the resolution.
// Start from the bottom (negative y) and go up
// Move from left (negative x) to right
float xDiff = maxX - minX;
float yDiff = maxY - minY;
float xIncr = xDiff / res.Columns;
float yIncr = yDiff / res.Rows;
int vIndex = 0;
for (int row = 0; row < res.Rows; row++)
{
for (int column = 0; column < res.Columns; column++)
{
Vector3f vertex1 = new Vector3f(minX + column * xIncr, minY + row * yIncr, 0);
Vector3f vertex2 = new Vector3f(minX + (column + 1) * xIncr, minY + row * yIncr, 0);
Vector3f vertex3 = new Vector3f(minX + (column + 1) * xIncr, minY + (row + 1) * yIncr, 0);
Vector3f vertex4 = new Vector3f(minX + column * xIncr, minY + (row + 1) * yIncr, 0);
// Set the vertices for the quad
vertices[vIndex + 0] = vertex1;
vertices[vIndex + 1] = vertex2;
vertices[vIndex + 2] = vertex3;
vertices[vIndex + 3] = vertex4;
// Set the indices for the quad
indices[vIndex + 0] = vIndex;
indices[vIndex + 1] = vIndex + 1;
indices[vIndex + 2] = vIndex + 2;
indices[vIndex + 3] = vIndex + 3;
// Set the texture coords for the quad
texCoords[vIndex + 0].Set(0.0f, 0.0f);
texCoords[vIndex + 1].Set(1.0f, 0.0f);
texCoords[vIndex + 2].Set(1.0f, 1.0f);
texCoords[vIndex + 3].Set(0.0f, 1.0f);
vIndex += 4;
}
}
// assign all the attributes to the mesh object
// and return it.
wall.SetIndices(indices);
wall.SetVertices(vertices);
wall.SetTextureCoordinates(texCoords);
wall.Texture = texture;
// Now transform the vertices based on which wall it is we are constructing
minX = roomSize.X / -2;
maxX = roomSize.X / 2;
minY = roomSize.Y / -2;
maxY = roomSize.Y / 2;
float minZ = roomSize.Z / -2;
float maxZ = roomSize.Z / 2;
Transformation transform = new Transformation();
switch (whichWall)
{
case AABBFace.Front:
transform.Translate(new float3(0, 0, minZ));
break;
case AABBFace.Back:
transform.SetRotate(float3x3.Rotate((float)Math.PI, new float3(0, 1, 0)));
transform.Translate(new float3(0, 0, maxZ));
break;
case AABBFace.Left:
transform.SetRotate(float3x3.Rotate((float)Math.PI/2, new float3(0, 1, 0)));
transform.Translate(new float3(minX, 0, 0));
break;
case AABBFace.Right:
transform.SetRotate(float3x3.Rotate((float)-Math.PI/2, new float3(0, 1, 0)));
transform.Translate(new float3(maxX, 0, 0));
break;
case AABBFace.Ceiling:
transform.SetRotate(float3x3.Rotate((float)-Math.PI/2, new float3(1, 0, 0)));
transform.Translate(new float3(0, maxY, 0));
break;
case AABBFace.Floor:
transform.SetRotate(float3x3.Rotate((float)Math.PI/2, new float3(1, 0, 0)));
transform.Translate(new float3(0, minY, 0));
break;
}
wall.ApplyTransform(transform);
return wall;
}
public override IntPtr OnKeyboardActivity(object sender, KeyboardActivityArgs kbde)
{
if (kbde.AcitivityType == KeyActivityType.KeyDown)
{
switch (kbde.VirtualKeyCode)
{
case VirtualKeyCodes.Left:
case VirtualKeyCodes.A:
angRotY += 1.0f;
break;
case VirtualKeyCodes.Right:
case VirtualKeyCodes.S:
angRotY -= 1.0f;
break;
case VirtualKeyCodes.Up:
windStrength += 0.1;
break;
case VirtualKeyCodes.Down:
windStrength -= 0.1;
break;
}
}
if (kbde.AcitivityType == KeyActivityType.KeyUp)
{
switch (kbde.VirtualKeyCode)
{
case VirtualKeyCodes.F1:
flagTexture = fPictureTexture;
break;
case VirtualKeyCodes.F2:
flagTexture = fCamera1;
break;
case VirtualKeyCodes.F3:
flagTexture = fCamera2;
break;
case VirtualKeyCodes.F:
polyFillMode = PolygonMode.Fill;
break;
case VirtualKeyCodes.L:
polyFillMode = PolygonMode.Line;
break;
case VirtualKeyCodes.W:
fBanner.ApplyWind = !fBanner.ApplyWind;
break;
case VirtualKeyCodes.T:
bUseTexture = !bUseTexture;
break;
}
}
return IntPtr.Zero;
}
public void SetupTexture()
{
//fPictureTexture = TextureHelper.CreateTextureFromFile(GI, "bara.gif", false);
fPictureTexture = TextureHelper.CreateTextureFromFile(GI, "EELogo.jpg", false);
//fPictureTexture = TextureHelper.CreateTextureFromFile(GI, "EEIndia.jpg", false);
flagTexture = fPictureTexture;
}
public void SetWallTexture(AABBFace whichWall, GLTexture texture)
{
AABBFaceMesh wall = GetWall(whichWall);
if (null == wall)
return;
wall.Texture = texture;
}
protected override void OnSetContext()
{
GraphicsInterface.gCheckErrors = true;
//fViewer = new SketchViewer(GI, 620, 440);
// Sections of the wall
fSection0 = new CylinderSection(GI, 14.0f, 12.0f, 72, 10, 10, new RectangleF(4.0f/5,1, 1.0f/5, 1));
fSection72 = new CylinderSection(GI, 14.0f, 12.0f, 72, 10, 10, new RectangleF(3.0f/5, 1, 1.0f / 5, 1));
fSection144 = new CylinderSection(GI, 14.0f, 12.0f, 72, 10, 10, new RectangleF(2.0f / 5, 1, 1.0f / 5, 1));
fSection216 = new CylinderSection(GI, 14.0f, 12.0f, 72, 10, 10, new RectangleF(1.0f / 5, 1, 1.0f / 5, 1));
fSection288 = new CylinderSection(GI, 14.0f, 12.0f, 72, 10, 10, new RectangleF(0.0f / 5, 1, 1.0f / 5, 1));
// Sections displaying current speaker
fSpeakerSection0 = new CylinderSection(GI, 4.0f, 4.0f, 45, 10, 10);
fSpeakerSection90 = new CylinderSection(GI, 4.0f, 4.0f, 45, 10, 10);
fSpeakerSection180 = new CylinderSection(GI, 4.0f, 4.0f, 45, 10, 10);
fSpeakerSection270 = new CylinderSection(GI, 4.0f, 4.0f, 45, 10, 10);
GI.Features.DepthTest.Enable();
// Medium Cyan background
GI.Buffers.ColorBuffer.Color = ColorRGBA.MediumCyan;
// Cull backs of polygons
//GI.CullFace(GLFace.Back);
GI.FrontFace(FrontFaceDirection.Ccw);
//GI.Enable(GLOption.CullFace);
GI.Features.DepthTest.Enable();
// Setup light parameters
//GI.LightModel(LightModelParameter.LightModelAmbient, fNoLight);
GI.LightModel(LightModelParameter.LightModelAmbient, fBrightLight);
GI.Features.Lighting.Light0.Ambient = new ColorRGBA(fLowLight);
GI.Features.Lighting.Light0.Diffuse = new ColorRGBA(fBrightLight);
GI.Features.Lighting.Light0.Specular = new ColorRGBA(fBrightLight);
GI.Features.Lighting.Enable();
GI.Features.Lighting.Light0.Enable();
// Mostly use material tracking
GI.Features.ColorMaterial.Enable();
GI.ColorMaterial(GLFace.FrontAndBack, ColorMaterialParameter.AmbientAndDiffuse);
GI.Material(GLFace.FrontAndBack, MaterialParameter.Shininess, 128);
string PanoramicName = "Microsoft RoundTable Panoramic Video";
string SpeakerName = "Microsoft RoundTable Active Speaker Video";
//fWallTexture = TextureHelper.CreateCheckerboardTexture(GI, 512, 512);
//fWallTexture = VideoTexture.CreateVideoDeviceTexture(GI, PanoramicName);
fWallVideo = VideoTexture.CreateFromDeviceIndex(GI, 0);
fWallTexture = fWallVideo;
//fSpeakerTexture = TextureHelper.CreateCheckerboardTexture(GI, 512, 512);
//fSpeakerTexture = VideoTexture.CreateVideoDeviceTexture(GI, SpeakerName);
//fSpeakerTexture = VideoTexture.CreateFromDeviceIndex(GI, 1);
fSpeakerVideo = VideoTexture.CreateFromDeviceIndex(GI, 1);
fSpeakerTexture = fSpeakerVideo;
fDesktopTexture = TextureHelper.CreateCheckerboardTexture(GI, 512, 512);
}
/// <summary>
/// This routine uses the YCrCbProcessor object to do the actual work of color
/// model conversion. After the processing occurs, we are left with three
/// different texture objects as properties on the processor.
///
/// We assign those properties to variables that are used to display the results.
/// </summary>
void SeparateChannels()
{
fYCrCbProcessor.SeparateChannels(fVideoTexture);
// Assign resultant textures to variables
fYTexture = fYCrCbProcessor.YChannel;
fCrTexture = fYCrCbProcessor.CrChannel;
fCbTexture = fYCrCbProcessor.CbChannel;
// assign the texture on the mesh object
fFaceMesh.Texture = fYTexture;
}
/// <summary>
/// This routine is meant to draw a quad with the specified texture
/// on the screen. It achieves this by first changing the viewport to
/// match the coordinates specified in the destination rectangle.
///
/// The coordinate system starts with 0,0 being the lower left hand
/// corner of the window, and increasing x to the right and y as you
/// go up the screen. The coordinates are in pixels.
///
/// This can draw a "screen aligned quad" if the x,y == 0,0, and the
/// width,height == the size of the frame buffer being drawn into.
/// </summary>
/// <param name="texture"></param>
/// <param name="x">location of x coordinate</param>
/// <param name="y">location of y coordinate</param>
/// <param name="width">width in pixels of the viewport</param>
/// <param name="height">height in pixels of the viewport</param>
void DisplayQuad(GLTexture texture, RectangleF srcRect, Rectangle dstRect)
{
int left = dstRect.X;
int bottom = dstRect.Y;
int right = left + dstRect.Width;
int top = bottom + dstRect.Height;
GI.Viewport(left, bottom, dstRect.Width, dstRect.Height);
GI.MatrixMode(MatrixMode.Projection);
GI.LoadIdentity();
GI.Ortho(0, dstRect.Width, 0, dstRect.Height, -1.0, 1.0);
texture.Bind();
GI.FrontFace(FrontFaceDirection.Ccw);
GI.Drawing.Quads.Begin();
{
// Left bottom
GI.TexCoord(srcRect.X, srcRect.Y);
GI.Vertex(0, 0);
// Right bottom
GI.TexCoord(srcRect.X + srcRect.Width, srcRect.Y);
GI.Vertex(dstRect.Width, 0);
// Right top
GI.TexCoord(srcRect.X + srcRect.Width, srcRect.Y + srcRect.Height);
GI.Vertex(dstRect.Width, dstRect.Height);
// Left top
GI.TexCoord(srcRect.X, srcRect.Y + srcRect.Height);
GI.Vertex(0, dstRect.Height);
}
GI.Drawing.Quads.End();
texture.Unbind();
}