public void EnableRendering(Vector3 origin)
{
Vector3[] lineColors;
int[] lineIndicies;
bboxShader = ShaderCompiler.BuildDefaultShader();
bboxShader.Link();
lineColors = null;
lineIndicies = null;
lines(LineColor, 12, out lineColors, out lineIndicies);
_geo = new Box.BoxGeometry();
_pack = new PackedGeometry();
_pack.Coloring = true;
_pack._indices = _geo.Indices;
_pack._coords = _geo.Vertices;
_pack.color = X3DTypeConverters.Vec3ToFloatArray(lineColors);
_pack._colorIndicies = lineIndicies;
_pack.restartIndex = -1;
_pack.Interleave();
_handle = _pack.CreateHandle();
renderingEnabled = _handle.HasGeometry;
InitBoundaryPoints(origin);
}
internal static void Build(Type type)
{
if (GetShaderSourceData(type) != null)
{
return;
}
Debug.LogFormat("Building material {0}", type.FullName);
if (!type.IsSubclassOf(typeof(ScriptableMaterial)))
{
Debug.LogErrorFormat("Can not build material {0}", type.FullName);
return;
}
ShaderSourceData shaderSourceData = new ShaderSourceData();
foreach (ShaderType shaderType in typeof(ShaderType).GetEnumValues())
{
var methodReference = type.GetTypeDefinition().FindMethod(shaderType.ToString());
string source = new ShaderCompiler().Compile(methodReference, out var uniformList);
var description = string.Format("// {0} generated from {1}\n", shaderType.ToString(), type.FullName);
shaderSourceData.codes[shaderType] = description + source;
if (uniformList != null)
{
foreach (var uniform in uniformList)
{
shaderSourceData.uniforms.Add(uniform);
}
}
}
SetShaderSourceData(type, shaderSourceData);
}
public void IncludeTest()
{
var c = new ShaderCompiler();
var o = new CompileOptions();
o.Language = CompileOptions.InputLanguage.GLSL;
o.IncludeCallback = IncludeHandler;
string testShader = @"#version 450
#include ""common.glsl""
void main()
{}";
var r = c.Preprocess(testShader, ShaderCompiler.Stage.Vertex, o, "testShader");
Assert.True(r.NumberOfErrors == 0, "[Vulkan] GLSL->PREPROCESS: Has error messages");
Assert.True(r.CompileStatus == CompileResult.Status.Success, "[Vulkan] GLSL->PREPROCESS: Compilation failed:" + r.ErrorMessage);
var bc = r.GetBytes();
var preprocessed = Encoding.ASCII.GetString(bc);
Assert.False(preprocessed.Contains("#include"), "[Vulkan] GLSL->PREPROCESS: Preprocessed shader still " +
"contains include directive:" + preprocessed);
}
public void PixelShaderEffect_ShaderHasMultipleConstantBuffers_Fails()
{
const string hlsl1 =
@"
cbuffer a { float4 x; };
cbuffer b { float4 y; };
float4 main() : SV_Target
{
return x + y;
}
";
const string hlsl2 =
@"
cbuffer a : register(b1) { float4 x; };
float4 main() : SV_Target
{
return x;
}
";
byte[] compiledShader1 = ShaderCompiler.CompileShader(hlsl1, "ps_4_0");
byte[] compiledShader2 = ShaderCompiler.CompileShader(hlsl2, "ps_4_0");
Utils.AssertThrowsException <ArgumentException>(
() => new PixelShaderEffect(compiledShader1),
"Unsupported constant buffer layout. There should be a single constant buffer bound to b0.");
Utils.AssertThrowsException <ArgumentException>(
() => new PixelShaderEffect(compiledShader2),
"Unsupported constant buffer layout. There should be a single constant buffer bound to b0.");
}
public void Compile(ShaderCompiler compiler, ShaderCompiler.Operand position, ShaderCompiler.Operand texCoord,
ShaderCompiler.Operand[] attributes, ShaderCompiler.Operand borderDistance, ShaderCompiler.Operand[] constants,
ShaderCompiler.Operand outputColour)
{
// The colour is saved in attribute.
compiler.Mov(attributes[0], outputColour);
}
public override ShaderCompiler.Operand[] Compile(ShaderCompiler compiler, ShaderCompiler.Operand[] operands,
FixedShaderParameters parameters, ref DualShareContext shareContext)
{
return(new ShaderCompiler.Operand[] {
compiler.CreateFixed(PinFormat.UInteger, Pin.NotArray, operands[0].ArraySize)
});
}
void TryRoundTrip(string sourcePrefix, string compilerSource, byte[] expectedBytes)
{
var shaderSourceCode = sourcePrefix + compilerSource;
var preprocessorDefines = new CompilerMacro[2];
preprocessorDefines[0].Name = "XBOX";
preprocessorDefines[1].Name = "XBOX360";
var includeHandler = new NopIncludeHandler();
var options = CompilerOptions.None;
var compiledShader = ShaderCompiler.AssembleFromSource(
shaderSourceCode, preprocessorDefines, includeHandler, options,
Microsoft.Xna.Framework.TargetPlatform.Xbox360);
var compiledBytes = compiledShader.GetShaderCode();
if (compiledBytes == null ||
compiledBytes.Length != expectedBytes.Length ||
!MemCmp(compiledBytes, expectedBytes))
{
compilerUcodeTextBox.BackColor = System.Drawing.Color.Red;
}
else
{
compilerUcodeTextBox.BackColor = System.Drawing.SystemColors.Control;
}
}
public CodeTabView()
{
this.InitializeComponent();
this.shaderTextEditor = this.CreateTextEditor();
this.shaderTextEditor.Encoding = System.Text.Encoding.ASCII;
//// _shaderTextEditor.TextChanged += new EventHandler(_shaderTextEditor_TextChanged);
//// _shaderTextEditor.Document.TextContentChanged += new EventHandler(Document_TextContentChanged);
this.shaderTextEditor.Document.DocumentChanged += this.DocumentDocumentChanged;
using (var stream = typeof(CodeTabView).Assembly.GetManifestResourceStream("Shazzam.Resources.HLSLSyntax.xshd"))
{
if (stream != null)
{
using (var reader = new XmlTextReader(stream))
{
var sm = new SyntaxMode("HLSL.xshd", "HLSL", ".fx");
this.hlslHs = HighlightingDefinitionParser.Parse(sm, reader);
this.hlslHs.ResolveReferences(); // don't forget this!
reader.Close();
}
}
}
this.shaderTextEditor.Document.HighlightingStrategy = this.hlslHs;
this.FormsHost.Child = this.shaderTextEditor;
this.csTextEditor = this.CreateTextEditor();
this.FormsHostCs.Child = this.csTextEditor;
this.compiler = new ShaderCompiler();
this.compiler.Reset();
this.OutputTextBox.DataContext = this.compiler;
this.Loaded += this.CodeTabViewLoaded;
}
public override ShaderCompiler.Operand[] Compile(ShaderCompiler compiler, ShaderCompiler.Operand[] operands, FixedShaderParameters parameters, ref DualShareContext shareContext)
{
// We prepare operands.
ShaderCompiler.Operand[] ret = new ShaderCompiler.Operand[operands.Length];
for (int i = 0; i < ret.Length; i++)
{
ret[i] = compiler.CreateTemporary(operands[i].Format, operands[i].ArraySize);
compiler.Mov(operands[i], ret[i]);
}
// We begin while.
compiler.BeginWhile();
// We also fill dual share context.
ShaderCompiler.Operand[] shared = new ShaderCompiler.Operand[ret.Length];
for (int i = 0; i < ret.Length; i++)
{
shared[i] = ret[i];
}
shareContext = new DualShareContext(shared, parent.outputOperation);
// We now go forward.
return(ret);
}
public CodeTabView()
{
InitializeComponent();
_shaderTextEditor = CreateTextEditor();
_shaderTextEditor.Encoding = System.Text.Encoding.ASCII;
// _shaderTextEditor.TextChanged += new EventHandler(_shaderTextEditor_TextChanged);
// _shaderTextEditor.Document.TextContentChanged += new EventHandler(Document_TextContentChanged);
_shaderTextEditor.Document.DocumentChanged += new DocumentEventHandler(Document_DocumentChanged);
using (var stream = typeof(CodeTabView).Assembly.GetManifestResourceStream("Shazzam.Resources.HLSLSyntax.xshd"))
{
using (var reader = new XmlTextReader(stream))
{
var sm = new SyntaxMode("HLSL.xshd", "HLSL", ".fx");
_hlslHS = HighlightingDefinitionParser.Parse(sm, reader);
_hlslHS.ResolveReferences(); // don't forget this!
reader.Close();
}
}
_shaderTextEditor.Document.HighlightingStrategy = _hlslHS;
this.formsHost.Child = _shaderTextEditor;
_csTextEditor = CreateTextEditor();
this.formsHostCs.Child = _csTextEditor;
_vbTextEditor = CreateTextEditor();
this.formsHostVb.Child = _vbTextEditor;
_compiler = new ShaderCompiler();
_compiler.Reset();
outputTextBox.DataContext = _compiler;
this.Loaded += CodeTabView_Loaded;
}
public q3bsp()
{
//map = this;
glshading = new ShaderCompiler();
//showLoadStatus();
// Map elements
skybox_env = null;
vertexBuffer = -1;
indexBuffer = -1;
indexCount = 0;
lightmap = glshading.createSolidTexture(new Vector4(255, 255, 255, 255));
surfaces = null;
shaders = new Dictionary <string, shader_gl>();
highlighted = null;
// Sorted draw elements
unshadedSurfaces = new List <shader_p>();
defaultSurfaces = new List <shader_p>();
modelSurfaces = new List <shader_p>();
effectSurfaces = new List <shader_p>();
// BSP Elements
bspTree = null;
// Effect elements
startTime = (int)DateTime.Now.Ticks;
bgMusic = null;
}
public override ShaderCompiler.Operand[] Compile(
ShaderCompiler compiler, ShaderCompiler.Operand[] operands,
FixedShaderParameters parameters, ref DualShareContext shareContext)
{
// We resolve interface arrays.
object[] interfaces = InterfaceHelper.ResolveInterfaceArray(inputs[1], parameters);
Dictionary <ICompositeInterface, ShaderCompiler.Operand[]> constants
= new Dictionary <ICompositeInterface, ShaderCompiler.Operand[]>(interfaces.Length);
// We extract interface parameters and register them.
for (int i = 0; i < interfaces.Length; i++)
{
ICompositeInterface provider = interfaces[i] as ICompositeInterface;
// We now register it.
constants.Add(provider, InterfaceHelper.RegisterInterfaceConstants(compiler,
string.Format("Composite[{0}]", i), parameters, interfaces[i] as ICompositeInterface));
}
// We only need to execute last element.
ICompositeInterface pixelProvider = interfaces[interfaces.Length - 1] as ICompositeInterface;
// We execute it.
return(new ShaderCompiler.Operand[] {
pixelProvider.GetPixel(compiler, operands[0], constants)
});
}
public override ShaderCompiler.Operand[] Compile(ShaderCompiler compiler, ShaderCompiler.Operand[] operands, FixedShaderParameters parameters, ref DualShareContext shareContext)
{
return(new ShaderCompiler.Operand[]
{
compiler.Swizzle(operands[0], mask)
});
}
// For matrix types that are accessed as component arrays (int or bool matrix + float matrices other than 3x2 and 4x4).
void TestMatrixPropertyType <T>(string hlsl, T[] initialValue, T[] initialArray, T[] newValue, T[] newArray)
{
var effect = new PixelShaderEffect(ShaderCompiler.CompileShader(hlsl, "ps_4_0"));
// Verify initial values.
CollectionAssert.AreEqual(initialValue, (T[])effect.Properties["value_row"]);
CollectionAssert.AreEqual(initialValue, (T[])effect.Properties["value_col"]);
CollectionAssert.AreEqual(initialArray, (T[])effect.Properties["array_row"]);
CollectionAssert.AreEqual(initialArray, (T[])effect.Properties["array_col"]);
// Set new values.
effect.Properties["value_row"] = newValue;
effect.Properties["value_col"] = newValue;
effect.Properties["array_row"] = newArray;
effect.Properties["array_col"] = newArray;
// Read back the modified values.
CollectionAssert.AreEqual(newValue, (T[])effect.Properties["value_row"]);
CollectionAssert.AreEqual(newValue, (T[])effect.Properties["value_col"]);
CollectionAssert.AreEqual(newArray, (T[])effect.Properties["array_row"]);
CollectionAssert.AreEqual(newArray, (T[])effect.Properties["array_col"]);
}
public override ShaderCompiler.Operand[] Compile(ShaderCompiler compiler, ShaderCompiler.Operand[] operands, FixedShaderParameters parameters, ref DualShareContext shareContext)
{
// We prepare operands.
ShaderCompiler.Operand[] ret = new ShaderCompiler.Operand[operands.Length];
for (int i = 1; i < ret.Length; i++)
{
ret[i] = compiler.CreateTemporary(operands[i].Format, operands[i].ArraySize);
compiler.Mov(operands[i], ret[i]);
}
// At index 0, we have indexer, we initialize to 0.
ret[0] = compiler.CreateTemporary(PinFormat.UInteger, Pin.NotArray);
compiler.Mov(compiler.CreateFixed(PinFormat.UInteger, Pin.NotArray, (uint)0), ret[0]);
// We begin while.
compiler.BeginWhile();
// We exit if iteration count is exceeded.
compiler.Break(compiler.Compare(CompareFunction.Less, ret[0], operands[0]));
compiler.Add(ret[0], compiler.CreateFixed(PinFormat.UInteger, Pin.NotArray, (uint)1), ret[0]);
// We also fill dual share context.
ShaderCompiler.Operand[] shared = new ShaderCompiler.Operand[ret.Length - 1];
for (int i = 1; i < ret.Length; i++)
{
shared[i - 1] = ret[i];
}
shareContext = new DualShareContext(shared, parent.outputOperation);
// We now go forward.
return(ret);
}
public void PixelShaderEffect_FeatureLevelValidation()
{
const string hlsl =
@"
float4 main() : SV_Target
{
return 0;
}
";
var effect93 = new PixelShaderEffect(ShaderCompiler.CompileShader(hlsl, "ps_4_0_level_9_3"));
var effect40 = new PixelShaderEffect(ShaderCompiler.CompileShader(hlsl, "ps_4_0"));
using (var featureLevel93Device = DeviceCreator.CreateDevice(useFeatureLevel93: true))
using (var canvasDevice = CanvasDevice.CreateFromDirect3D11Device(featureLevel93Device))
{
Assert.IsTrue(effect93.IsSupported(canvasDevice));
Assert.IsFalse(effect40.IsSupported(canvasDevice));
using (var renderTarget = new CanvasRenderTarget(canvasDevice, 1, 1, 96))
using (var drawingSession = renderTarget.CreateDrawingSession())
{
drawingSession.DrawImage(effect93);
Utils.AssertThrowsException <COMException>(
() => drawingSession.DrawImage(effect40),
"This shader requires a higher Direct3D feature level than is supported by the device. Check PixelShaderEffect.IsSupported before using it.");
}
}
}
public ShaderCompiler.Operand[] Compile(ShaderCompiler compiler, ShaderCompiler.Operand[] operands, FixedShaderParameters parameters, ref DualShareContext shareContext)
{
// We checked if it is fixed on "constant" level (not named).
if (!IsReferencable)
{
return(new ShaderCompiler.Operand[] {
compiler.CreateFixed(output.Format, output.Size, value)
});
}
// We first check if this parameter is fixed.
if (parameters.IsParameterFixed(name))
{
// If it is fixed, we create a fixed constant.
switch (output.Format)
{
case PinFormat.Texture1D:
case PinFormat.Texture1DArray:
case PinFormat.Texture2D:
case PinFormat.Texture2DArray:
case PinFormat.TextureCube:
case PinFormat.Texture3D:
case PinFormat.Sampler:
case PinFormat.BufferTexture:
case PinFormat.Interface:
// We return "unresolved" parameter, it must be obtained directly.
return(new ShaderCompiler.Operand[1] {
null
});
default:
break;
}
return(new ShaderCompiler.Operand[]
{
compiler.CreateFixed(output.Format, output.Size, parameters[name])
});
}
// We locate it.
uint bufferID = 0;
uint offset = 0;
ConstantBufferLayout[] layouts = parameters.ConstantBuffers;
foreach (ConstantBufferLayout layout in layouts)
{
if (layout.TryGetOffset(name, out offset))
{
break;
}
bufferID++;
}
// We must emit code.
return(new ShaderCompiler.Operand[] {
compiler.CreateConstant(output.Format, output.Size, bufferID, offset)
});
}
ShaderCompiler.Operand ICompositeInterface.GetPixel(ShaderCompiler compiler,
ShaderCompiler.Operand absolutePosition, Dictionary <ICompositeInterface, ShaderCompiler.Operand[]> constants)
{
return(compiler.Add(
source1.Interface.GetPixel(compiler, absolutePosition, constants),
source2.Interface.GetPixel(compiler, absolutePosition, constants)
));
}
public void PixelShaderEffect_PropertiesDictionary_Methods()
{
const string hlsl =
@"
float foo = 23;
int i = 42;
float4 main() : SV_Target
{
return foo * i;
}
";
var effect = new PixelShaderEffect(ShaderCompiler.CompileShader(hlsl, "ps_4_0"));
// Test the various dictionary methods that are forwarded from our
// Map<> implementation via PixelShaderEffectPropertyMapTraits.
// Count.
Assert.AreEqual(2, effect.Properties.Count);
// HasKey.
Assert.IsTrue(effect.Properties.ContainsKey("foo"));
Assert.IsTrue(effect.Properties.ContainsKey("i"));
Assert.IsFalse(effect.Properties.ContainsKey("bar"));
Assert.IsFalse(effect.Properties.ContainsKey("I"));
Assert.IsFalse(effect.Properties.ContainsKey(string.Empty));
// Lookup.
Assert.AreEqual(23.0f, effect.Properties["foo"]);
Assert.AreEqual(42, effect.Properties["i"]);
object value;
Utils.AssertThrowsException <ArgumentException>(
() => value = effect.Properties["bar"],
"Shader does not have a property named 'bar'.");
Utils.AssertThrowsException <ArgumentException>(
() => value = effect.Properties[string.Empty],
"Shader does not have a property named ''.");
// GetKeyValuePairs.
var array = effect.Properties.ToArray();
Assert.AreEqual(2, array.Length);
Assert.AreEqual("foo", array[0].Key);
Assert.AreEqual(23.0f, array[0].Value);
Assert.AreEqual("i", array[1].Key);
Assert.AreEqual(42, array[1].Value);
// Remove and Clear are not supported.
Assert.ThrowsException <NotImplementedException>(() => effect.Properties.Remove("foo"));
Assert.ThrowsException <NotImplementedException>(() => effect.Properties.Clear());
}
public void CompileFromFiles(Canvas canvas, string psName, string vsName)
{
this.psFileName = psName;
this.vsFileName = vsName;
ShaderProfile psProf = ShaderProfile.PS_1_1;
switch (PSTarget)
{
case 2:
psProf = ShaderProfile.PS_2_0;
break;
case 3:
psProf = ShaderProfile.PS_3_0;
break;
}
ShaderProfile vsProf = ShaderProfile.VS_1_1;
switch (VSTarget)
{
case 2:
vsProf = ShaderProfile.VS_2_0;
break;
case 3:
vsProf = ShaderProfile.VS_3_0;
break;
}
CompiledShader psShader = ShaderCompiler.CompileFromFile(psFileName, null, null, CompilerOptions.PackMatrixRowMajor, "main", psProf, TargetPlatform.Windows);
Log.GetInstance().WriteLine(psShader.ErrorsAndWarnings);
CompiledShader vsShader = ShaderCompiler.CompileFromFile(vsFileName, null, null, CompilerOptions.PackMatrixRowMajor, "main", vsProf, TargetPlatform.Windows);
Log.GetInstance().WriteLine(vsShader.ErrorsAndWarnings);
errorMessage = null;
if (vsShader.ErrorsAndWarnings.Length > 1)
{
errorMessage = "Vertex Shader: " + vsShader.ErrorsAndWarnings;
}
if (psShader.ErrorsAndWarnings.Length > 1)
{
if (errorMessage == null)
{
errorMessage = "Pixel Shader: " + psShader.ErrorsAndWarnings;
}
else
{
errorMessage = errorMessage + "\n Pixel Shader: " + psShader.ErrorsAndWarnings;
}
}
if (psShader.Success && vsShader.Success)
{
ps = new PixelShader(canvas.GetDevice(), psShader.GetShaderCode());
vs = new VertexShader(canvas.GetDevice(), vsShader.GetShaderCode());
compiled = true;
}
}
public void Compile(ShaderCompiler compiler, ShaderCompiler.Operand position, ShaderCompiler.Operand texCoord, ShaderCompiler.Operand[] attributes,
ShaderCompiler.Operand borderDistance, ShaderCompiler.Operand[] constants, ShaderCompiler.Operand outputColour)
{
ShaderCompiler.Operand texture = constants[0];
ShaderCompiler.Operand sampler = constants[1];
// We perform a sampling.
compiler.Sample(sampler, texture, texCoord, outputColour);
}
public GlContextManager()
{
cancelTokenSource = new CancellationTokenSource();
glThread = new Thread(runGlThread);
ShaderCompiler = new ShaderCompiler();
activeProgram = NullProgram;
renderWidth = 1;
renderHeight = 1;
}
public void PixelShaderEffect_ShaderReflectionSetsCoordinateMappingDefaults()
{
const string hlsl =
@"
texture2D t0;
sampler s0;
texture2D t1;
sampler s1;
texture2D t2;
sampler s2;
texture2D t3;
sampler s3;
float4 main(float4 texcoord0 : TEXCOORD0,
float4 texcoord1 : TEXCOORD1,
float4 texcoord2 : TEXCOORD2,
float4 texcoord3 : TEXCOORD3) : SV_Target
{
return t0.Sample(s0, texcoord0) +
t1.Sample(s1, texcoord1) +
t2.Sample(s2, texcoord2) +
t3.Sample(s3, texcoord3);
}
export float4 ShaderLinkingFunction(float4 input0 : INPUT0,
float4 texcoord1 : TEXCOORD1,
float4 texcoord2 : TEXCOORD2,
float4 input3 : INPUT3)
{
return input0 +
t1.Sample(s1, texcoord1) +
t2.Sample(s2, texcoord2) +
input3;
}
";
// If we compile without support for shader linking, all mappings default to Unknown.
var effect = new PixelShaderEffect(ShaderCompiler.CompileShader(hlsl, "ps_4_0"));
Assert.AreEqual(SamplerCoordinateMapping.Unknown, effect.Source1Mapping);
Assert.AreEqual(SamplerCoordinateMapping.Unknown, effect.Source2Mapping);
Assert.AreEqual(SamplerCoordinateMapping.Unknown, effect.Source3Mapping);
Assert.AreEqual(SamplerCoordinateMapping.Unknown, effect.Source4Mapping);
// But if we include a shader linking function, reflection now has enough
// info to detect which inputs are simple. These are set to OneToOne mapping.
effect = new PixelShaderEffect(ShaderCompiler.CompileShaderAndEmbedLinkingFunction(hlsl));
Assert.AreEqual(SamplerCoordinateMapping.OneToOne, effect.Source1Mapping);
Assert.AreEqual(SamplerCoordinateMapping.Unknown, effect.Source2Mapping);
Assert.AreEqual(SamplerCoordinateMapping.Unknown, effect.Source3Mapping);
Assert.AreEqual(SamplerCoordinateMapping.OneToOne, effect.Source4Mapping);
}
ShaderCompiler.Operand ICompositeInterface.GetPixel(ShaderCompiler compiler,
ShaderCompiler.Operand absolutePosition, Dictionary <ICompositeInterface, ShaderCompiler.Operand[]> constants)
{
ShaderCompiler.Operand[] inputs = constants[this];
return(compiler.Add(
compiler.Mul(source1.Interface.GetPixel(compiler, absolutePosition, constants), inputs[0]),
compiler.Mul(source2.Interface.GetPixel(compiler, absolutePosition, constants), inputs[1])
));
}
ShaderCompiler.Operand ICompositeInterface.GetPixel(ShaderCompiler compiler,
ShaderCompiler.Operand absolutePosition, Dictionary <ICompositeInterface, ShaderCompiler.Operand[]> constants)
{
ShaderCompiler.Operand[] inputs = constants[this];
return(compiler.Sample(inputs[1], inputs[0],
compiler.CreateFixed(PinFormat.Floatx2, Pin.NotArray, new Vector2f(0, 0)),
compiler.Mul(absolutePosition, inputs[2])
));
}
ShaderCompiler.Operand ICompositeInterface.GetPixel(ShaderCompiler compiler,
ShaderCompiler.Operand absolutePosition, Dictionary <ICompositeInterface, ShaderCompiler.Operand[]> constants)
{
ShaderCompiler.Operand[] inputs = constants[this];
ShaderCompiler.Operand offset = compiler.CreateFixed(PinFormat.Integerx2, Pin.NotArray, new Vector2i(0, 0));
return(compiler.Load(inputs[0], compiler.Expand(
compiler.Convert(absolutePosition, PinFormat.Integerx2),
PinFormat.Integerx3, ExpandType.AddZeros), offset));
}
private Veldrid.Shader LoadShader(ResourceFactory factory, string set, ShaderStages stage, string entryPoint)
{
string name = $"{set}-{stage.ToString().ToLower()}.{GetExtension(factory.BackendType)}";
var assetBytes = ReadEmbeddedAssetBytes(name);
if (factory.BackendType == GraphicsBackend.Vulkan)
{
//Create a new compiler and new options
var c = new ShaderCompiler();
var o = new CompileOptions();
//Set our compile options
o.Language = CompileOptions.InputLanguage.GLSL;
o.Optimization = CompileOptions.OptimizationLevel.Performance;
//Compile the specified vertex shader and give it a name
var r = c.Compile(Encoding.UTF8.GetString(assetBytes), stage == ShaderStages.Vertex ? ShaderCompiler.Stage.Vertex : ShaderCompiler.Stage.Fragment, o, stage == ShaderStages.Vertex ? "VS" : "PS");
//Check if we had any compilation errors
if (r.CompileStatus != CompileResult.Status.Success)
{
//Write the error out
System.Console.WriteLine(r.ErrorMessage);
throw new Exception("Cannot compile Vulkan shader");
}
//Get the produced SPV bytecode
assetBytes = r.GetBytes();
}
var hash = 0l;
using (var sha = SHA256Managed.Create())
{
using (var stream = new MemoryStream(assetBytes))
{
var rawHash = sha.ComputeHash(stream);
hash = BitConverter.ToInt64(rawHash, 0);
}
}
if (stage == ShaderStages.Vertex)
{
_vertexHash = hash;
}
else
{
if (stage == ShaderStages.Fragment)
{
_fragmentHash = hash;
}
}
return(factory.CreateShader(new ShaderDescription(stage, assetBytes, entryPoint)));
}
private static Number4[] RenderScene(Device device)
{
const int width = 200;
const int height = 100;
// Create device and swap chain.
var swapChainPresenter = new RawSwapChainPresenter();
var swapChain = device.CreateSwapChain(
new SwapChainDescription(width, height),
swapChainPresenter);
var deviceContext = device.ImmediateContext;
// Create RenderTargetView from the backbuffer.
var backBuffer = Texture2D.FromSwapChain(swapChain, 0);
var renderTargetView = device.CreateRenderTargetView(backBuffer);
// Compile Vertex and Pixel shaders
var vertexShaderByteCode = ShaderCompiler.CompileFromFile("Assets/MiniTri.fx", "VS", "vs_4_0");
var vertexShader = device.CreateVertexShader(vertexShaderByteCode);
var pixelShaderByteCode = ShaderCompiler.CompileFromFile("Assets/MiniTri.fx", "PS", "ps_4_0");
var pixelShader = device.CreatePixelShader(pixelShaderByteCode);
// Layout from VertexShader input signature
var layout = device.CreateInputLayout(
new[]
{
new InputElement("POSITION", 0, Format.R32G32B32A32_Float, 0),
new InputElement("COLOR", 0, Format.R32G32B32A32_Float, 0)
}, vertexShaderByteCode);
// Instantiate Vertex buffer from vertex data
var vertices = device.CreateBuffer(new BufferDescription(BindFlags.VertexBuffer), new[]
{
new Vector4(0.0f, 0.5f, 0.5f, 1.0f), new Vector4(1.0f, 0.0f, 0.0f, 1.0f),
new Vector4(0.5f, -0.5f, 0.5f, 1.0f), new Vector4(0.0f, 1.0f, 0.0f, 1.0f),
new Vector4(-0.5f, -0.5f, 0.5f, 1.0f), new Vector4(0.0f, 0.0f, 1.0f, 1.0f)
});
// Prepare all the stages
deviceContext.InputAssembler.InputLayout = layout;
deviceContext.InputAssembler.PrimitiveTopology = PrimitiveTopology.TriangleList;
deviceContext.InputAssembler.SetVertexBuffers(0, new VertexBufferBinding(vertices, 0, 32));
deviceContext.VertexShader.Shader = vertexShader;
deviceContext.Rasterizer.SetViewports(new Viewport(0, 0, width, height, 0.0f, 1.0f));
deviceContext.PixelShader.Shader = pixelShader;
deviceContext.OutputMerger.SetTargets(null, renderTargetView);
deviceContext.ClearRenderTargetView(renderTargetView, Color4.Black);
deviceContext.Draw(3, 0);
swapChain.Present();
return(swapChainPresenter.Data);
}
private int CreateVertexShader_()
{
// TODO: Does this spherical UV need to take camera into account?
var vertexShaderLines =
@"#version 130
uniform float u_sphericalUvEnabled;
//struct TextureParams {
// vec2 clamped;
// vec2 mirrored;
//
// vec2 maxUv;
//};
//uniform TextureParams textureParams0;
//uniform TextureParams textureParams1;
in vec3 in_position;
in vec2 in_uv0;
in vec2 in_uv1;
in vec3 in_normal;
in vec4 in_color;
out vec3 v_position;
out vec2 v_uv0;
out vec2 v_uv1;
out vec3 v_normal;
out vec3 v_projectedNormal;
out vec4 v_shade;" +
'\n';
//vertexShaderLines += this.CreateUvMethods();
vertexShaderLines +=
@"void main() {
gl_Position = gl_ModelViewProjectionMatrix * vec4(in_position, 1f);
// in_position should already be in world space, since we
// project the points w/ software matrices.
v_position = in_position;
v_uv0 = in_uv0;
v_uv1 = in_uv1;
//v_uv0 = calculateUv(in_uv0, textureParams0, projectedNormal);
//v_uv1 = calculateUv(in_uv1, textureParams1, projectedNormal);
v_normal = in_normal;
v_projectedNormal = normalize(gl_ModelViewProjectionMatrix * vec4(in_normal, 0f)).xyz;
v_shade = in_color;
}";
return(ShaderCompiler.Compile(Gl.GL_VERTEX_SHADER, vertexShaderLines));
}
public override ShaderCompiler.Operand[] Compile(ShaderCompiler compiler, ShaderCompiler.Operand[] operands,
FixedShaderParameters parameters, ref DualShareContext shareContext)
{
ShaderCompiler.Operand dst = compiler.CreateTemporary(operands[1].Format, operands[1].ArraySize);
compiler.BeginIf(operands[0]);
compiler.Mov(operands[1], dst);
compiler.Else();
compiler.Mov(operands[2], dst);
compiler.EndIf();
return(new ShaderCompiler.Operand[] { dst });
}
public void Load()
{
Vertex v;
List<Vertex> geometry = new List<Vertex>();
v = new Vertex()
{
Position = new Vector3(0f, 0f, 0) + Position,
TexCoord = new Vector2(0f, 1f)
};
geometry.Add(v);
v = new Vertex()
{
Position = new Vector3(this.Height, 0f, 0) + Position,
TexCoord = new Vector2(1f, 1f)
};
geometry.Add(v);
v = new Vertex()
{
Position = new Vector3(this.Height, this.Height, 0) + Position,
TexCoord = new Vector2(1f, 0f)
};
geometry.Add(v);
v = new Vertex()
{
Position = new Vector3(0f, this.Height, 0) + Position,
TexCoord = new Vector2(0f, 0f)
};
geometry.Add(v);
//Bitmap bmpCross = ImageTexture.CreateBitmap(System.Drawing.Color.Black, 100, 100);
//GraphicsUnit gunit = GraphicsUnit.Pixel;
//var bounds = bmpCross.GetBounds(ref gunit);
//this._image = ImageTexture.CreateTextureFromImage(bmpCross, bounds);
//var @default = ShaderCompiler.BuildDefaultShader();
//@default.Link();
//@default.Use();
var @default = ShaderCompiler.ApplyShader(PerlinNoiseShader.vertexShaderSource, PerlinNoiseShader.fragmentShaderSource);
@default.Link();
@default.Use();
CurrentShader = @default;
Buffering.BufferShaderGeometry(geometry, out vbo, out NumVerticies);
}
