public ApplicationSprite()
{
// Set the default stage behavior
stage.scaleMode = StageScaleMode.NO_SCALE;
stage.align = StageAlign.TOP_LEFT;
// Request a 3D context instance
stage3D = stage.stage3Ds[0];
//stage3D.addEventListener(Event.CONTEXT3D_CREATE, contextReady, false, 0, true);
stage3D.context3DCreate +=
e =>
{
//stage3D.removeEventListener(Event.CONTEXT3D_CREATE, contextReady);
//trace("Got context!");
// Get the new context
context = stage3D.context3D;
// Configure back buffer
context.configureBackBuffer(CONTEXT_WIDTH, CONTEXT_HEIGHT, 2, true);
stage3D.x = stage3D.y = 0;
// Prepare vertex data
Vector <double> vertexData = new[] {
-0.5, -0.5, 0, 1.0, 0.0, 0.0, //<- 1st vertex x,y,z, r,g,b
-0.5, 0.5, 0, 0.0, 1.0, 0.0, //<- 2nd vertex x,y,z, r,g,b
0.5, 0.0, 0, 0.0, 0.0, 1.0 //<- 3rd vertex x,y,z, r,g,b
};
// Connect the vertices into a triangle (in counter-clockwise order)
Vector <uint> indexData = new uint[] { 0, 1, 2 };
// Prepare a shader for rendering
shader = new BasicRender();
shader.upload(context);
shader.setGeometry(vertexData, indexData);
// ...and start rendering frames!
//addEventListener(Event.ENTER_FRAME, renderFrame, false, 0, true);
var sw = new Stopwatch();
sw.Start();
Func <Matrix3D> makeViewMatrix = delegate
{
var aspect = CONTEXT_WIDTH / CONTEXT_HEIGHT;
var zNear = 0.01;
var zFar = 1000;
var fov = 45 * DEGS_TO_RADIANS;
var view = new PerspectiveMatrix3D();
view.perspectiveFieldOfViewLH(fov, aspect, zNear, zFar);
var m = new Matrix3D();
m.appendRotation(sw.ElapsedMilliseconds / 30, Vector3D.Z_AXIS);
m.appendTranslation(0, 0, 2);
m.append(view);
return(m);
};
this.enterFrame +=
delegate
{
// Clear away the old frame render
context.clear();
// Calculate the view matrix, and run the shader program!
shader.render(makeViewMatrix());
// Show the newly rendered frame on screen
context.present();
};
};
stage3D.requestContext3D(Context3DRenderMode.AUTO);
//trace("Awaiting context...");
}
public ApplicationSprite()
{
this.WithStage3D(
stage3D =>
{
//AtMessage("WithStage3D");
var context3D = stage3D.context3D;
context3D.configureBackBuffer(300, 300, 2);
// Create program 3D instance for shader
var program = context3D.createProgram();
// Assemble vertex shader from its code
var vertexAssembler = new AGALMiniAssembler();
// partial?
vertexAssembler.assemble(Context3DProgramType.VERTEX, vertexShader);
// Assemble fragment shader from its code
var fragmentAssembler = new AGALMiniAssembler();
fragmentAssembler.assemble(Context3DProgramType.FRAGMENT, fragmentShader);
// Upload vertex/framgment shader to our program
program.upload(vertexAssembler.agalcode, fragmentAssembler.agalcode);
// Set the program instance as currently active program
context3D.setProgram(program);
// Create index buffer
var __i3dBuffer = context3D.createIndexBuffer(3);
// Upload index buffer from predefined values
__i3dBuffer.uploadFromVector(new uint[] { 0, 1, 2 }, 0, 3);
// Create vertex buffer
var __v3dBuffer = context3D.createVertexBuffer(3, 3);
// Upload vertex buffer from predefined values
__v3dBuffer.uploadFromVector(new double[]{
-1, -1, 5,
1, -1, 5,
0, 1, 5}, 0, 3);
// Set vertex buffer, this is what we access in vertex shader register va0
context3D.setVertexBufferAt(0, __v3dBuffer, 0, Context3DVertexBufferFormat.FLOAT_3);
// Create our projection matrix
var projection = new PerspectiveMatrix3D();
// Use a helper function to set up the projection
projection.perspectiveFieldOfViewLH(45 * Math.PI / 180, 1.2, 0.1, 512);
// Set the projection matrix as a vertex program constant, this is what we access in vertex shader register vc0
context3D.setProgramConstantsFromMatrix(Context3DProgramType.VERTEX, 0, projection, true);
// Set the out color for our polygon as fragment program constant, this is what we access in fragment shader register fc0
context3D.setProgramConstantsFromVector(Context3DProgramType.FRAGMENT, 0, new double[] { 1, 1, 1, 0 });
// Hook up enter frame event where we will do our rendering
this.enterFrame +=
delegate
{
context3D.clear(0, 0, 0, 0);
context3D.drawTriangles(__i3dBuffer, 0, 1);
context3D.present();
};
}
);
}
public ApplicationSprite()
{
this.WithStage3D(
stage3D =>
{
//AtMessage("WithStage3D");
var context3D = stage3D.context3D;
context3D.configureBackBuffer(300, 300, 2);
// Create program 3D instance for shader
var program = context3D.createProgram();
// Assemble vertex shader from its code
var vertexAssembler = new AGALMiniAssembler();
vertexAssembler.assemble(Context3DProgramType.VERTEX, vertexShader);
// Assemble fragment shader from its code
var fragmentAssembler = new AGALMiniAssembler();
fragmentAssembler.assemble(Context3DProgramType.FRAGMENT, fragmentShader);
// Upload vertex/framgment shader to our program
program.upload(vertexAssembler.agalcode, fragmentAssembler.agalcode);
// Set the program instance as currently active program
context3D.setProgram(program);
// Create index buffer
var __i3dBuffer = context3D.createIndexBuffer(3);
// Upload index buffer from predefined values
__i3dBuffer.uploadFromVector(new uint[] { 0, 1, 2 }, 0, 3);
// Create vertex buffer
var __v3dBuffer = context3D.createVertexBuffer(3, 3);
// Upload vertex buffer from predefined values
__v3dBuffer.uploadFromVector(new double[] {
-1, -1, 5,
1, -1, 5,
0, 1, 5
}, 0, 3);
// Set vertex buffer, this is what we access in vertex shader register va0
context3D.setVertexBufferAt(0, __v3dBuffer, 0, Context3DVertexBufferFormat.FLOAT_3);
// Create our projection matrix
var projection = new PerspectiveMatrix3D();
// Use a helper function to set up the projection
projection.perspectiveFieldOfViewLH(45 * Math.PI / 180, 1.2, 0.1, 512);
// Set the projection matrix as a vertex program constant, this is what we access in vertex shader register vc0
context3D.setProgramConstantsFromMatrix(Context3DProgramType.VERTEX, 0, projection, true);
// Set the out color for our polygon as fragment program constant, this is what we access in fragment shader register fc0
context3D.setProgramConstantsFromVector(Context3DProgramType.FRAGMENT, 0, new double[] { 1, 1, 1, 0 });
// Hook up enter frame event where we will do our rendering
this.enterFrame +=
delegate
{
context3D.clear(0, 0, 0, 0);
context3D.drawTriangles(__i3dBuffer, 0, 1);
context3D.present();
};
}
);
}
public ApplicationSprite()
{
// Set the default stage behavior
stage.scaleMode = StageScaleMode.NO_SCALE;
stage.align = StageAlign.TOP_LEFT;
// Request a 3D context instance
stage3D = stage.stage3Ds[0];
//stage3D.addEventListener(Event.CONTEXT3D_CREATE, contextReady, false, 0, true);
stage3D.context3DCreate +=
e =>
{
//stage3D.removeEventListener(Event.CONTEXT3D_CREATE, contextReady);
//trace("Got context!");
// Get the new context
context = stage3D.context3D;
// Configure back buffer
context.configureBackBuffer(CONTEXT_WIDTH, CONTEXT_HEIGHT, 2, true);
stage3D.x = stage3D.y = 0;
// Prepare vertex data
Vector<double> vertexData = new[]{
-0.5, -0.5, 0, 1.0, 0.0, 0.0, //<- 1st vertex x,y,z, r,g,b
-0.5, 0.5, 0, 0.0, 1.0, 0.0, //<- 2nd vertex x,y,z, r,g,b
0.5, 0.0, 0, 0.0, 0.0, 1.0 //<- 3rd vertex x,y,z, r,g,b
};
// Connect the vertices into a triangle (in counter-clockwise order)
Vector<uint> indexData = new uint[] { 0, 1, 2 };
// Prepare a shader for rendering
shader = new BasicRender();
shader.upload(context);
shader.setGeometry(vertexData, indexData);
// ...and start rendering frames!
//addEventListener(Event.ENTER_FRAME, renderFrame, false, 0, true);
var sw = new Stopwatch();
sw.Start();
Func<Matrix3D> makeViewMatrix = delegate
{
var aspect = CONTEXT_WIDTH / CONTEXT_HEIGHT;
var zNear = 0.01;
var zFar = 1000;
var fov = 45 * DEGS_TO_RADIANS;
var view = new PerspectiveMatrix3D();
view.perspectiveFieldOfViewLH(fov, aspect, zNear, zFar);
var m = new Matrix3D();
m.appendRotation(sw.ElapsedMilliseconds / 30, Vector3D.Z_AXIS);
m.appendTranslation(0, 0, 2);
m.append(view);
return m;
};
this.enterFrame +=
delegate
{
// Clear away the old frame render
context.clear();
// Calculate the view matrix, and run the shader program!
shader.render(makeViewMatrix());
// Show the newly rendered frame on screen
context.present();
};
};
stage3D.requestContext3D(Context3DRenderMode.AUTO);
//trace("Awaiting context...");
}
