public void Bind(ProgramAttribute attribute, GraphicsBuffer buffer, int offsetInBytes, Format format, int stride)
{
if (attribute == null)
throw new ArgumentNullException("attribute");
throw new NotImplementedException();
//GLExt.VertexAttribFormat(attribute.Index, format.ComponentCount, format.VertexAttribPonterType, format.IsNormalized, offsetInBytes);
}
public ModelAttribute(string name, GraphicsBuffer buffer, int offsetInBytes, Format format, int stride, ModelAttributeChannel channel, int index)
{
this.Channel = channel;
this.Index = index;
this.Name = name;
this.Buffer = buffer;
this.OffsetInBytes = offsetInBytes;
this.Format = format;
this.Stride = stride;
}
public Model(GraphicsBuffer elementBuffer, ElementType elementType, Sphere3d bounds)
{
if (elementBuffer == null)
throw new ArgumentNullException("elementBuffer");
this.elementBuffer = elementBuffer;
this.elementType = elementType;
this.bounds = bounds;
bones = new ModelBoneCollection(this);
meshes = new ModelMeshCollection(this);
}
static GraphicsMemoryRegion <GraphicsResource> CreateConstantBufferRegion(GraphicsContext graphicsContext, GraphicsBuffer constantBuffer)
{
var constantBufferRegion = constantBuffer.Allocate(SizeOf <Matrix4x4>(), alignment: 256);
var pConstantBuffer = constantBuffer.Map <Matrix4x4>(in constantBufferRegion);
pConstantBuffer[0] = Matrix4x4.Identity;
constantBuffer.UnmapAndWrite(in constantBufferRegion);
return(constantBufferRegion);
}
extern private void SetGraphicsBuffer(int nameID, [NotNull] GraphicsBuffer buffer);
static GraphicsBufferView CreateIndexBufferView(GraphicsCopyContext copyContext, GraphicsBuffer indexBuffer, GraphicsBuffer uploadBuffer, in UnmanagedValueList <uint> indices)
public void Accept(ShaderGeneratorContext context)
{
valueBuffer ??= GraphicsBuffer.Create(context.GraphicsDevice, Value, ResourceFlags.None, GraphicsHeapType.Upload);
context.ConstantBufferViews.Add(valueBuffer);
}
private void ChessBoard_Paint(object sender, PaintEventArgs e)
{
GraphicsBuffer graphicsBuffer = new GraphicsBuffer();
graphicsBuffer.CreateGraphicsBuffer(e.Graphics, Width, Height);
Graphics g = graphicsBuffer.Graphics;
SolidBrush solidWhiteBrush = new SolidBrush(Color.White);
SolidBrush solidBlackBrush = new SolidBrush(Color.Black);
Pen penBlack = new Pen(Color.Black, 1);
Pen penHightlight = new Pen(Color.Black, 2);
Pen penDestination = new Pen(Color.Yellow, 2);
Pen penValidMove = new Pen(Color.Black, 2);
Pen penEnPassant = new Pen(Color.DeepPink, 1);
const int buffer = 10;
if (Width < Height)
{
maxHeight = Width - 5 - buffer;
boxHeight = maxHeight / 8;
}
else
{
maxHeight = Height - 5 - buffer;
boxHeight = maxHeight / 8;
}
g.Clear(BackColor);
try
{
int selectedX;
int selectedY;
//Draw Chess Board
for (byte y = 0; y < 8; y++)
{
for (byte x = 0; x < 8; x++)
{
if ((x + y) % 2 == 0)
{
g.FillRectangle(solidWhiteBrush, (x * boxHeight) + buffer, (y * boxHeight), boxHeight, boxHeight);
}
else
{
Rectangle drawArea1 = new Rectangle((x * boxHeight) + buffer, (y * boxHeight), boxHeight, boxHeight);
LinearGradientBrush linearBrush = new LinearGradientBrush(
drawArea1, Color.Gainsboro, Color.Silver, LinearGradientMode.ForwardDiagonal);
g.FillRectangle(linearBrush, (x * boxHeight) + buffer, (y * boxHeight), boxHeight, boxHeight);
}
g.DrawRectangle(penBlack, (x * boxHeight) + buffer, (y * boxHeight), boxHeight, boxHeight);
}
}
for (byte i = 0; i < 8; i++)
{
g.DrawString((8 - i).ToString(), new Font("Verdana", 8), solidBlackBrush, 0, (i * boxHeight) + buffer);
g.DrawString(GetColumnFromInt(i + 1).ToString(), new Font("Verdana", 8), solidBlackBrush, (i * boxHeight) + (boxHeight / 2) + 3, maxHeight - 1);
}
//Draw Pieces
for (byte column = 0; column < 8; column++)
{
for (byte row = 0; row < 8; row++)
{
ChessPieceType chessPieceType = engine.GetPieceTypeAt(column, row);
if (chessPieceType != ChessPieceType.None)
{
ChessPieceColor chessPieceColor = engine.GetPieceColorAt(column, row);
bool selected = engine.GetChessPieceSelected(column, row);
int x = (column) * boxHeight;
int y = (row) * boxHeight;
if (chessPieceColor == ChessPieceColor.White)
{
if (chessPieceType == ChessPieceType.Pawn)
{
g.DrawImage(Resources.WPawn, x + buffer, y, boxHeight, boxHeight);
}
else if (chessPieceType == ChessPieceType.Rook)
{
g.DrawImage(Resources.WRook, x + buffer, y, boxHeight, boxHeight);
}
else if (chessPieceType == ChessPieceType.Knight)
{
g.DrawImage(Resources.WKnight, x + buffer, y, boxHeight, boxHeight);
}
else if (chessPieceType == ChessPieceType.Bishop)
{
g.DrawImage(Resources.WBishop, x + buffer, y, boxHeight, boxHeight);
}
else if (chessPieceType == ChessPieceType.Queen)
{
g.DrawImage(Resources.WQueen, x + buffer, y, boxHeight, boxHeight);
}
else if (chessPieceType == ChessPieceType.King)
{
g.DrawImage(Resources.WKing, x + buffer, y, boxHeight, boxHeight);
}
}
else
{
if (chessPieceType == ChessPieceType.Pawn)
{
g.DrawImage(Resources.BPawn, x + buffer, y, boxHeight, boxHeight);
}
else if (chessPieceType == ChessPieceType.Rook)
{
g.DrawImage(Resources.BRook, x + buffer, y, boxHeight, boxHeight);
}
else if (chessPieceType == ChessPieceType.Knight)
{
g.DrawImage(Resources.BKnight, x + buffer, y, boxHeight, boxHeight);
}
else if (chessPieceType == ChessPieceType.Bishop)
{
g.DrawImage(Resources.BBishop, x + buffer, y, boxHeight, boxHeight);
}
else if (chessPieceType == ChessPieceType.Queen)
{
g.DrawImage(Resources.BQueen, x + buffer, y, boxHeight, boxHeight);
}
else if (chessPieceType == ChessPieceType.King)
{
g.DrawImage(Resources.BKing, x + buffer, y, boxHeight, boxHeight);
}
}
if (selected)
{
selectedX = ((column) * boxHeight) + buffer;
//selectedY = (8 - row - 1)*boxHeight;
//selectedX = ((8-column-1) * boxHeight) + buffer;
selectedY = (row) * boxHeight;
g.DrawRectangle(penHightlight, selectedX, selectedY, boxHeight - 1, boxHeight - 1);
//Draw Valid Moves
if (engine.GetValidMoves(column, row) != null)
{
foreach (byte[] sqr in engine.GetValidMoves(column, row))
{
int moveY = (sqr[1]) * boxHeight;
int moveX = (sqr[0] * boxHeight) + buffer;
g.DrawRectangle(penValidMove, moveX, moveY, boxHeight - 1, boxHeight - 1);
}
}
}
if (engine.GetEnPassantMoves()[0] > 0)
{
int moveY = (engine.GetEnPassantMoves()[1]) * boxHeight;
int moveX = (engine.GetEnPassantMoves()[0] * boxHeight) + buffer;
g.DrawRectangle(penEnPassant, moveX, moveY, boxHeight - 1, boxHeight - 1);
}
}
}
}
if (currentDestination.Selected)
{
selectedY = (currentDestination.Row) * boxHeight;
selectedX = ((currentDestination.Column) * boxHeight) + buffer;
g.DrawRectangle(penDestination, selectedX, selectedY, boxHeight - 1, boxHeight - 1);
}
graphicsBuffer.Render(CreateGraphics());
g.Dispose();
}
catch (Exception ex)
{
MessageBox.Show(ex.Message, "Error Drawing Chess Board", MessageBoxButtons.OK);
}
}
static GraphicsBufferView CreateVertexBufferView(GraphicsCopyContext copyContext, GraphicsBuffer vertexBuffer, GraphicsBuffer uploadBuffer, float aspectRatio)
{
var uploadBufferView = uploadBuffer.CreateBufferView <Texture3DVertex>(4);
var vertexBufferSpan = uploadBufferView.Map <Texture3DVertex>();
{
vertexBufferSpan[0] = new Texture3DVertex { //
Position = Vector3.Create(-0.5f, 0.5f, 0.0f), // y in this setup
UVW = Vector3.Create(0, 1, 0.5f), // ^ z the origin o
}; // | / is in the middle
// | / of the rendered scene
vertexBufferSpan[1] = new Texture3DVertex { // o------>x
Position = Vector3.Create(0.5f, 0.5f, 0.0f), //
UVW = Vector3.Create(1, 1, 0.5f), // 0 ----- 1
}; // | \ |
// | \ |
vertexBufferSpan[2] = new Texture3DVertex { // | \ |
Position = Vector3.Create(0.5f, -0.5f, 0.0f), // 3-------2
UVW = Vector3.Create(1, 0, 0.5f), //
};
vertexBufferSpan[3] = new Texture3DVertex {
Position = Vector3.Create(-0.5f, -0.5f, 0.0f),
UVW = Vector3.Create(0, 0, 0.5f),
};
}
uploadBufferView.UnmapAndWrite();
var vertexBufferView = vertexBuffer.CreateBufferView <Texture3DVertex>(4);
copyContext.Copy(vertexBufferView, uploadBufferView);
return(vertexBufferView);
}
static GraphicsBufferView CreateIndexBufferView(GraphicsCopyContext copyContext, GraphicsBuffer indexBuffer, GraphicsBuffer uploadBuffer)
{
var uploadBufferView = uploadBuffer.CreateBufferView <ushort>(6);
var indexBufferSpan = uploadBufferView.Map <ushort>();
{
// clockwise when looking at the triangle from the outside
indexBufferSpan[0] = 0;
indexBufferSpan[1] = 1;
indexBufferSpan[2] = 2;
indexBufferSpan[3] = 0;
indexBufferSpan[4] = 2;
indexBufferSpan[5] = 3;
}
uploadBufferView.UnmapAndWrite();
var indexBufferView = indexBuffer.CreateBufferView <ushort>(6);
copyContext.Copy(indexBufferView, uploadBufferView);
return(indexBufferView);
}
public static async Task RunAsync(GraphicsDevice device)
{
bool generateWithDelegate = false;
// Create graphics buffer
int width = 10;
int height = 10;
float[] array = new float[width * height];
for (int i = 0; i < array.Length; i++)
{
array[i] = i;
}
float[] outputArray = new float[width * height];
using GraphicsBuffer <float> sourceBuffer = GraphicsBuffer.Create <float>(device, array, ResourceFlags.None);
using GraphicsBuffer <float> destinationBuffer = GraphicsBuffer.Create <float>(device, array.Length * 2, ResourceFlags.AllowUnorderedAccess);
GraphicsBuffer <float> slicedDestinationBuffer = destinationBuffer.Slice(20, 60);
slicedDestinationBuffer = slicedDestinationBuffer.Slice(10, 50);
DescriptorSet descriptorSet = new DescriptorSet(device, 2);
descriptorSet.AddUnorderedAccessViews(slicedDestinationBuffer);
descriptorSet.AddShaderResourceViews(sourceBuffer);
// Generate computer shader
ShaderGenerator shaderGenerator = generateWithDelegate
? CreateShaderGeneratorWithDelegate(sourceBuffer, destinationBuffer)
: CreateShaderGeneratorWithClass();
ShaderGeneratorResult result = shaderGenerator.GenerateShader();
// Compile shader
byte[] shaderBytecode = ShaderCompiler.Compile(ShaderStage.ComputeShader, result.ShaderSource, result.EntryPoints["compute"]);
DescriptorRange[] descriptorRanges = new DescriptorRange[]
{
new DescriptorRange(DescriptorRangeType.UnorderedAccessView, 1, 0),
new DescriptorRange(DescriptorRangeType.ShaderResourceView, 1, 0)
};
RootParameter rootParameter = new RootParameter(new RootDescriptorTable(descriptorRanges), ShaderVisibility.All);
RootSignatureDescription rootSignatureDescription = new RootSignatureDescription(RootSignatureFlags.None, new[] { rootParameter });
RootSignature rootSignature = new RootSignature(device, rootSignatureDescription);
PipelineState pipelineState = new PipelineState(device, rootSignature, shaderBytecode);
// Execute computer shader
using (CommandList commandList = new CommandList(device, CommandListType.Compute))
{
commandList.SetPipelineState(pipelineState);
commandList.SetComputeRootDescriptorTable(0, descriptorSet);
commandList.Dispatch(1, 1, 1);
await commandList.FlushAsync();
}
// Print matrix
Console.WriteLine("Before:");
PrintMatrix(array, width, height);
destinationBuffer.GetData(outputArray.AsSpan());
Console.WriteLine();
Console.WriteLine("After:");
PrintMatrix(outputArray, width, height);
}
static GraphicsBufferView CreateVertexBufferView(GraphicsCopyContext copyContext, GraphicsBuffer vertexBuffer, GraphicsBuffer uploadBuffer, float aspectRatio)
{
var uploadBufferView = uploadBuffer.CreateBufferView <IdentityVertex>(3);
var vertexBufferSpan = uploadBufferView.Map <IdentityVertex>();
{
vertexBufferSpan[0] = new IdentityVertex {
Color = Colors.Red,
Position = Vector3.Create(0.0f, 0.25f * aspectRatio, 0.0f),
};
vertexBufferSpan[1] = new IdentityVertex {
Color = Colors.Lime,
Position = Vector3.Create(0.25f, -0.25f * aspectRatio, 0.0f),
};
vertexBufferSpan[2] = new IdentityVertex {
Color = Colors.Blue,
Position = Vector3.Create(-0.25f, -0.25f * aspectRatio, 0.0f),
};
}
uploadBufferView.UnmapAndWrite();
var vertexBufferView = vertexBuffer.CreateBufferView <IdentityVertex>(3);
copyContext.Copy(vertexBufferView, uploadBufferView);
return(vertexBufferView);
}
public void ReleaseIndexBuffer(GraphicsBuffer buffer)
{
_indexPool.ReleaseBuffer(buffer);
}
public void Visit(MaterialGeneratorContext context)
{
valueBuffer ??= GraphicsBuffer.New(context.GraphicsDevice, Value, ResourceFlags.ConstantBuffer, GraphicsHeapType.Upload).DisposeBy(context.GraphicsDevice);
context.ConstantBufferViews.Add(valueBuffer);
}
static GraphicsMemoryRegion <GraphicsResource> CreateVertexBufferRegion(GraphicsContext graphicsContext, GraphicsBuffer vertexBuffer, GraphicsBuffer vertexStagingBuffer, float aspectRatio)
{
var vertexBufferRegion = vertexBuffer.Allocate(SizeOf <Texture3DVertex>() * 4, alignment: 16);
var pVertexBuffer = vertexStagingBuffer.Map <Texture3DVertex>(in vertexBufferRegion);
pVertexBuffer[0] = new Texture3DVertex { //
Position = new Vector3(-0.5f, 0.5f, 0.0f), // y in this setup
UVW = new Vector3(0, 1, 0.5f), // ^ z the origin o
}; // | / is in the middle
// | / of the rendered scene
pVertexBuffer[1] = new Texture3DVertex { // o------>x
Position = new Vector3(0.5f, 0.5f, 0.0f), //
UVW = new Vector3(1, 1, 0.5f), // 0 ----- 1
}; // | \ |
// | \ |
pVertexBuffer[2] = new Texture3DVertex { // | \ |
Position = new Vector3(0.5f, -0.5f, 0.0f), // 3-------2
UVW = new Vector3(1, 0, 0.5f), //
};
pVertexBuffer[3] = new Texture3DVertex {
Position = new Vector3(-0.5f, -0.5f, 0.0f),
UVW = new Vector3(0, 0, 0.5f),
};
vertexStagingBuffer.UnmapAndWrite(in vertexBufferRegion);
return(vertexBufferRegion);
}
static GraphicsMemoryRegion <GraphicsResource> CreateTexture3DRegion(GraphicsContext graphicsContext, GraphicsBuffer textureStagingBuffer)
{
const uint TextureWidth = 256;
const uint TextureHeight = 256;
const ushort TextureDepth = 256;
const uint TextureDz = TextureWidth * TextureHeight;
const uint TexturePixels = TextureDz * TextureDepth;
var texture3D = graphicsContext.Device.MemoryAllocator.CreateTexture(GraphicsTextureKind.ThreeDimensional, GraphicsResourceCpuAccess.None, TextureWidth, TextureHeight, TextureDepth);
var texture3DRegion = texture3D.Allocate(texture3D.Size, alignment: 4);
var pTextureData = textureStagingBuffer.Map <uint>(in texture3DRegion);
for (uint n = 0; n < TexturePixels; n++)
{
var x = n % TextureWidth;
var y = n % TextureDz / TextureWidth;
var z = n / TextureDz;
pTextureData[n] = 0xFF000000 | (z << 16) | (y << 8) | (x << 0);
}
textureStagingBuffer.UnmapAndWrite(in texture3DRegion);
graphicsContext.Copy(texture3D, textureStagingBuffer);
return(texture3DRegion);
}
internal Model(AssetLoader loader)
: base(loader)
{
Asset context = loader.Context;
string name = loader.Name;
BinaryReader reader = loader.Reader;
FolderAsset textureArchive = null;
FolderAsset bonesFolder = new FolderAsset(this, "Bones");
FolderAsset materialsFolder = new FolderAsset(this, "Materials");
FolderAsset meshesFolder = new FolderAsset(this, "Meshes");
FolderAsset vertexDeclarationsFolder = new FolderAsset(this, "Vertex declarations");
ArrayBackedList<byte> bufferData = new ArrayBackedList<byte>();
if (context != null && context.Parent is FolderAsset) {
// @"/map/m##_##_##_##/m*.flver.dcx" for DS1; textures are in the @"/map/m##/" folder.
if (name.StartsWith(@"map/m")) {
string folderName = name.Substring(4, 3);
FolderAsset maps = (FolderAsset)context.Parent.Parent;
foreach (FolderAsset child in maps.Children) {
if (child.Name == folderName) {
textureArchive = child;
break;
}
}
} else
textureArchive = (FolderAsset)context.Parent;
}
#if Marking
MarkingStream markingStream = loader.StartMarking(out reader);
#endif
loader.ExpectMagic(Magic);
char endian = (char)reader.ReadByte();
switch (endian) {
case 'L':
ByteOrder = ByteOrder.LittleEndian;
break;
case 'B':
reader = loader.MakeBigEndian();
ByteOrder = ByteOrder.BigEndian;
break;
default:
throw new Exception();
}
using (reader) {
// Read header.
loader.Expect((byte)0);
Version = (ModelVersion)reader.ReadInt32();
if (Version != ModelVersion.DarkSouls && Version != ModelVersion.DarkSouls2)
loader.AddError(loader.Position - 4, "Unknown model version " + VersionString + "; will try to load it anyway.");
int dataOffset = reader.ReadInt32();
int dataSize = reader.ReadInt32();
if (((dataOffset + dataSize + 31) & ~31) != reader.BaseStream.Length)
loader.AddError(loader.Position - 4, "Data size and offset aren't correct.");
int boneUnknownCount = reader.ReadInt32();
int materialCount = reader.ReadInt32();
int boneCount = reader.ReadInt32();
int meshCount = reader.ReadInt32();
int meshCount2 = reader.ReadInt32();
if (meshCount != meshCount2)
loader.AddError(loader.Position - 4, "Mesh count 1 and 2 aren't the same.");
Bounds = new Box3f(reader.ReadVector3f(), reader.ReadVector3f());
Unknowns.ReadInt32s(reader, 1); // Possible the non-degenerate triangle count. Seems related.
int triangleCount = reader.ReadInt32();
loader.Expect(IsDS1 ? 272 : 0x10010100);
loader.Expect(IsDS1 ? 0 : 0xFFFF);
int partCount = reader.ReadInt32();
int vertexDeclarationCount = reader.ReadInt32();
int materialParameterCount = reader.ReadInt32();
loader.Expect(IsDS1 ? 0 : 0x1000000);
loader.ExpectZeroes(4, 8);
// Calculate offsets.
long boneUnknownsOffset = HeaderSize;
long materialsOffset = boneUnknownsOffset + boneUnknownCount * ModelBoneUnknown.DataSize;
long bonesOffset = materialsOffset + materialCount * ModelMaterial.DataSize;
long meshesOffset = bonesOffset + boneCount * ModelBone.DataSize;
long detailLevelsOffset = meshesOffset + meshCount * ModelMesh.DataSize;
long meshVerticesOffset = detailLevelsOffset + partCount * ModelDetailLevel.DataSize;
long vertexDeclarationsOffset = meshVerticesOffset + meshCount * ModelMesh.DataSizeVertexHeader;
long materialParametersOffset = vertexDeclarationsOffset + vertexDeclarationCount * ModelVertexDeclaration.DataSize;
long postHeaderOffset = materialParametersOffset + materialParameterCount * ModelMaterialParameter.DataSize;
// BoneUnknowns
ExpectedOffset(loader, boneUnknownsOffset, typeof(ModelBoneUnknown).Name);
for (int index = 0; index < boneUnknownCount; index++)
boneUnknowns.Add(new ModelBoneUnknown(bonesFolder, index, loader));
// Materials
ExpectedOffset(loader, materialsOffset, typeof(ModelMaterial).Name);
for (int index = 0; index < materialCount; index++)
materials.Add(new ModelMaterial(materialsFolder, index, loader));
int expectedMaterialParameterCount = materialCount > 0 ? materials[materialCount - 1].ParameterEndIndex : 0;
if (expectedMaterialParameterCount != materialParameterCount)
loader.AddError(null, "Expected material parameter count {0} doesn't match actual count {1}.", expectedMaterialParameterCount, materialParameterCount);
// Bones
ExpectedOffset(loader, bonesOffset, typeof(ModelBone).Name);
for (int index = 0; index < boneCount; index++)
bones.Add(new ModelBone(bonesFolder, index, loader));
// Meshes
ExpectedOffset(loader, meshesOffset, typeof(ModelMesh).Name);
for (int index = 0; index < meshCount; index++)
meshes.Add(new ModelMesh(meshesFolder, index, loader));
int expectedPartCount = meshCount > 0 ? meshes[meshCount - 1].PartEndIndex : 0;
if (expectedPartCount != partCount)
throw new InvalidDataException("Expected part count doesn't match actual count.");
// Detail levels
ExpectedOffset(loader, detailLevelsOffset, typeof(ModelDetailLevel).Name);
foreach (ModelMesh mesh in meshes) {
mesh.ReadDetailLevels(loader, dataOffset, bufferData);
detailLevels.AddRange(mesh.DetailLevels);
}
// Mesh vertices
ExpectedOffset(loader, meshVerticesOffset, typeof(ModelMesh).Name + " vertex header");
foreach (ModelMesh mesh in meshes)
mesh.ReadVertexHeaders(reader, dataOffset, bufferData);
// Vertex declarations
ExpectedOffset(loader, vertexDeclarationsOffset, typeof(ModelVertexDeclaration).Name);
for (int index = 0; index < vertexDeclarationCount; index++)
vertexDeclarations.Add(new ModelVertexDeclaration(vertexDeclarationsFolder, index, loader));
// Material parameters
ExpectedOffset(loader, materialParametersOffset, typeof(ModelMaterialParameter).Name);
foreach (ModelMaterial material in materials) {
material.ReadParameters(loader, textureArchive);
materialParameters.AddRange(material.Parameters);
}
ExpectedOffset(loader, postHeaderOffset, "Post-header");
#if Marking
if (markingStream != null) {
markingStream.Report(loader);
}
#endif // Marking
#if SkippedChecks
/*int vertexDataSize = 0, indexCount = 0, indexSize = 0, vertexCount = 0, expectedTriangleCount = 0, nondegenerateTriangleCount = 0;
foreach (var mesh in Meshes) {
vertexDataSize += mesh.VertexCount * mesh.VertexSize;
vertexCount += mesh.VertexCount;
foreach (var part in mesh.Parts) {
indexCount += part.Indices.Length;
indexSize += part.Indices.Length * 2;
expectedTriangleCount += part.Indices.Length - 2;
for (int index = 0; index < part.Indices.Length - 2; index++) {
if (part.Indices[index] != part.Indices[index + 1] && part.Indices[index + 1] != part.Indices[index + 2] && part.Indices[index] != part.Indices[index + 2])
nondegenerateTriangleCount++;
}
}
}
if (Math.Abs(expectedTriangleCount - triangleCount) > partCount)
throw new InvalidDataException("Expected triangle count doesn't match the read value.");*/
#endif
}
Buffer = new GraphicsBuffer(bufferData.Count == 0 ? 1 : bufferData.Count);
Buffer.Write(0, bufferData.Array, 0, bufferData.Count);
}
/// <summary>
/// Bind the specified <see cref="GraphicsBuffer"/> to this Vertex Array with specified <see cref="VertexDeclaration"/>
/// </summary>
/// <param name="buffer"><see cref="GraphicsBuffer"/> to bind</param>
/// <param name="vertexDeclaration"><see cref="VertexDeclaration"/> to use for binding</param>
public void BindBuffer(GraphicsBuffer buffer, VertexDeclaration vertexDeclaration)
{
for (int i = 0; i < vertexDeclaration.Elements.Length; i++)
{
VertexElement element = vertexDeclaration.Elements[i];
BindBuffer(buffer, element.Index, element.Size, element.Type, element.Normalized, vertexDeclaration.Stride, element.Offset);
}
}
/// <summary>
/// Bind the specified <see cref="GraphicsBuffer"/> to this Vertex Array with specified parameters
/// </summary>
/// <param name="buffer"><see cref="GraphicsBuffer"/> to bind</param>
/// <param name="index">Index of the Vertex Attribute to bind</param>
/// <param name="size">Number of components per vertex atribute. Must be 1-4</param>
/// <param name="type"><see cref="VertexAttribPointerType"/></param>
/// <param name="normalized">Normalized</param>
/// <param name="stride">Byte offset between consecutive vertex attributes</param>
/// <param name="offset">Offset</param>
public void BindBuffer(GraphicsBuffer buffer, int index, int size, VertexAttribPointerType type, bool normalized, int stride, int offset)
{
BindBuffer(buffer);
GL.EnableVertexAttribArray(index);
GL.VertexAttribPointer(index, size, type, normalized, stride, offset);
}
static GraphicsMemoryRegion <GraphicsResource> CreateVertexBufferRegion(GraphicsContext graphicsContext, GraphicsBuffer vertexBuffer, GraphicsBuffer vertexStagingBuffer, float aspectRatio)
{
var vertexBufferRegion = vertexBuffer.Allocate(SizeOf <IdentityVertex>() * 3, alignment: 16);
var pVertexBuffer = vertexStagingBuffer.Map <IdentityVertex>(in vertexBufferRegion);
pVertexBuffer[0] = new IdentityVertex {
Position = new Vector3(0.0f, 0.25f * aspectRatio, 0.0f),
Color = new Vector4(1.0f, 0.0f, 0.0f, 1.0f)
};
pVertexBuffer[1] = new IdentityVertex {
Position = new Vector3(0.25f, -0.25f * aspectRatio, 0.0f),
Color = new Vector4(0.0f, 1.0f, 0.0f, 1.0f)
};
pVertexBuffer[2] = new IdentityVertex {
Position = new Vector3(-0.25f, -0.25f * aspectRatio, 0.0f),
Color = new Vector4(0.0f, 0.0f, 1.0f, 1.0f)
};
vertexStagingBuffer.UnmapAndWrite(in vertexBufferRegion);
return(vertexBufferRegion);
}
// During initialization, we will allocate all required objects, and set up our custom instance data.
void Start()
{
// Create the BatchRendererGroup and register assets
m_BRG = new BatchRendererGroup(this.OnPerformCulling, IntPtr.Zero);
m_MeshID = m_BRG.RegisterMesh(mesh);
m_MaterialID = m_BRG.RegisterMaterial(material);
// Create the buffer that holds our instance data
m_InstanceData = new GraphicsBuffer(GraphicsBuffer.Target.Raw,
(kExtraBytes + kBytesPerInstance * kNumInstances) / sizeof(int),
sizeof(int));
// Place one zero matrix at the start of the instance data buffer, so loads from address 0 will return zero
var zero = new Matrix4x4[1] {
Matrix4x4.zero
};
// Create transform matrices for our three example instances
var matrices = new Matrix4x4[kNumInstances]
{
Matrix4x4.Translate(new Vector3(-2, 0, 0)),
Matrix4x4.Translate(new Vector3(0, 0, 0)),
Matrix4x4.Translate(new Vector3(2, 0, 0)),
};
// Convert the transform matrices into the packed format expected by the shader
var objectToWorld = new PackedMatrix[kNumInstances]
{
new PackedMatrix(matrices[0]),
new PackedMatrix(matrices[1]),
new PackedMatrix(matrices[2]),
};
// Also create packed inverse matrices
var worldToObject = new PackedMatrix[kNumInstances]
{
new PackedMatrix(matrices[0].inverse),
new PackedMatrix(matrices[1].inverse),
new PackedMatrix(matrices[2].inverse),
};
// Make all instances have unique colors
var colors = new Vector4[kNumInstances]
{
new Vector4(1, 0, 0, 1),
new Vector4(0, 1, 0, 1),
new Vector4(0, 0, 1, 1),
};
// In this simple example, the instance data is placed into the buffer like this:
// Offset | Description
// 0 | 64 bytes of zeroes, so loads from address 0 return zeroes
// 64 | 32 uninitialized bytes to make working with SetData easier, otherwise unnecessary
// 96 | unity_ObjectToWorld, three packed float3x4 matrices
// 240 | unity_WorldToObject, three packed float3x4 matrices
// 384 | _BaseColor, three float4s
// Compute start addresses for the different instanced properties. unity_ObjectToWorld starts
// at address 96 instead of 64, because the computeBufferStartIndex parameter of SetData
// is expressed as source array elements, so it is easier to work in multiples of sizeof(PackedMatrix).
uint byteAddressObjectToWorld = kSizeOfPackedMatrix * 2;
uint byteAddressWorldToObject = byteAddressObjectToWorld + kSizeOfPackedMatrix * kNumInstances;
uint byteAddressColor = byteAddressWorldToObject + kSizeOfPackedMatrix * kNumInstances;
// Upload our instance data to the GraphicsBuffer, from where the shader can load them.
m_InstanceData.SetData(zero, 0, 0, 1);
m_InstanceData.SetData(objectToWorld, 0, (int)(byteAddressObjectToWorld / kSizeOfPackedMatrix), objectToWorld.Length);
m_InstanceData.SetData(worldToObject, 0, (int)(byteAddressWorldToObject / kSizeOfPackedMatrix), worldToObject.Length);
m_InstanceData.SetData(colors, 0, (int)(byteAddressColor / kSizeOfFloat4), colors.Length);
// Set up metadata values to point to the instance data. Set the most significant bit 0x80000000 in each,
// which instructs the shader that the data is an array with one value per instance, indexed by the instance index.
// Any metadata values used by the shader and not set here will be zero. When such a value is used with
// UNITY_ACCESS_DOTS_INSTANCED_PROP (i.e. without a default), the shader will interpret the
// 0x00000000 metadata value so that the value will be loaded from the start of the buffer, which is
// where we uploaded the matrix "zero" to, so such loads are guaranteed to return zero, which is a reasonable
// default value.
var metadata = new NativeArray <MetadataValue>(3, Allocator.Temp);
metadata[0] = new MetadataValue {
NameID = Shader.PropertyToID("unity_ObjectToWorld"), Value = 0x80000000 | byteAddressObjectToWorld,
};
metadata[1] = new MetadataValue {
NameID = Shader.PropertyToID("unity_WorldToObject"), Value = 0x80000000 | byteAddressWorldToObject,
};
metadata[2] = new MetadataValue {
NameID = Shader.PropertyToID("_BaseColor"), Value = 0x80000000 | byteAddressColor,
};
// Finally, create a batch for our instances, and make the batch use the GraphicsBuffer with our
// instance data, and the metadata values that specify where the properties are. Note that
// we do not need to pass any batch size here.
m_BatchID = m_BRG.AddBatch(metadata, m_InstanceData.bufferHandle);
}
private unsafe GraphicsPrimitive CreateTrianglePrimitive(GraphicsContext graphicsContext, GraphicsBuffer vertexStagingBuffer)
{
var graphicsDevice = GraphicsDevice;
var graphicsSurface = graphicsDevice.Surface;
var graphicsPipeline = CreateGraphicsPipeline(graphicsDevice, "Transform", "main", "main");
var constantBuffer = _constantBuffer;
var vertexBuffer = _vertexBuffer;
var vertexBufferRegion = CreateVertexBufferRegion(graphicsContext, vertexBuffer, vertexStagingBuffer, aspectRatio: graphicsSurface.Width / graphicsSurface.Height);
graphicsContext.Copy(vertexBuffer, vertexStagingBuffer);
var inputResourceRegions = new GraphicsMemoryRegion <GraphicsResource>[2] {
CreateConstantBufferRegion(graphicsContext, constantBuffer),
CreateConstantBufferRegion(graphicsContext, constantBuffer),
};
return(graphicsDevice.CreatePrimitive(graphicsPipeline, vertexBufferRegion, SizeOf <IdentityVertex>(), inputResourceRegions: inputResourceRegions));
static GraphicsTextureView CreateTexture3DView(GraphicsCopyContext copyContext, GraphicsTexture texture3D, GraphicsBuffer uploadBuffer)
{
var uploadBufferView = uploadBuffer.CreateBufferView <byte>(checked ((uint)texture3D.ByteLength));
var textureDataSpan = uploadBufferView.Map <byte>();
{
var width = texture3D.PixelWidth;
var height = texture3D.PixelHeight;
var bytesPerRow = texture3D.BytesPerRow;
var depth = texture3D.PixelDepth;
var bytesPerLayer = texture3D.BytesPerLayer;
for (var z = 0u; z < depth; z++)
{
var layerIndex = z * bytesPerLayer;
for (var y = 0u; y < height; y++)
{
var rowIndex = layerIndex + (y * bytesPerRow);
var row = (uint *)textureDataSpan.GetPointer(rowIndex);
for (var x = 0u; x < width; x++)
{
var red = x * 256u / width;
var blue = y * 256u / height;
var green = z * 256u / depth;
var alpha = 0xFFu;
row[x] = (alpha << 24) | (green << 16) | (blue << 8) | (red << 0);
}
}
}
}
uploadBufferView.UnmapAndWrite();
var texture3DView = texture3D.CreateView(0, 1);
copyContext.Copy(texture3DView, uploadBufferView);
return(texture3DView);
}
public SkyFace(string textureName, SkyFaceSide faceSide)
{
this.vertexBuffer = VertexBuffer.CreateGeneric <PositionNormalTextured>(
GameEngine.Device,
4,
Usage.WriteOnly,
PositionNormalTextured.Format,
Pool.Managed,
null);
this.corners = this.vertexBuffer.Lock <PositionNormalTextured>(0, 0, LockFlags.None);
PositionNormalTextured[] data = new PositionNormalTextured[4];
switch (faceSide)
{
case SkyFaceSide.Top:
//Y always 100;
//back x -100; front X +100;
//back Z -100; front Z +100
data[0].X = -100f;
data[0].Y = 100f;
data[0].Z = -100f;
data[0].U = 0f;
data[0].V = 1f;
data[0].Nx = 0f;
data[0].Ny = -1f;
data[0].Nz = 0f;
data[1].X = 100f;
data[1].Y = 100f;
data[1].Z = -100f;
data[1].U = 0f;
data[1].V = 0f;
data[1].Nx = 0f;
data[1].Ny = -1f;
data[1].Nz = 0f;
data[2].X = -100f;
data[2].Y = 100f;
data[2].Z = 100f;
data[2].U = 1f;
data[2].V = 1f;
data[2].Nx = 0;
data[2].Ny = -1f;
data[2].Nz = 0f;
data[3].X = 100f;
data[2].Y = 100f;
data[3].Z = 100f;
data[3].U = 1f;
data[3].V = 0f;
data[3].Nx = 0f;
data[3].Ny = -1f;
data[3].Nz = 0f;
break;
case SkyFaceSide.Bottom:
data[0].X = -100.0f; // nw
data[0].Y = -100.0f;
data[0].Z = 100.0f;
data[0].U = 0.0f;
data[0].V = 0.0f;
data[0].Nx = 0.0f;
data[0].Ny = 1.0f;
data[0].Nz = 0.0f;
data[1].X = 100.0f; // ne
data[1].Y = -100.0f;
data[1].Z = 100.0f;
data[1].U = 1.0f;
data[1].V = 1.0f;
data[1].Nx = 0.0f;
data[1].Ny = 1.0f;
data[1].Nz = 0.0f;
data[2].X = -100.0f; // sw
data[2].Y = -100.0f;
data[2].Z = -100.0f;
data[2].U = 1.0f;
data[2].V = 0.0f;
data[2].Nx = 0.0f;
data[2].Ny = 1.0f;
data[2].Nz = 0.0f;
data[3].X = 100.0f; // se
data[3].Y = -100.0f;
data[3].Z = -100.0f;
data[3].U = 0.0f;
data[3].V = 1.0f;
data[3].Nx = 0.0f;
data[3].Ny = 1.0f;
data[3].Nz = 0.0f;
break;
case SkyFaceSide.Left:
data[0].X = -100.0f; // upper south
data[0].Y = 100.0f;
data[0].Z = -100.0f;
data[0].U = 0.0f;
data[0].V = 0.0f;
data[0].Nx = 1.0f;
data[0].Ny = 0.0f;
data[0].Nz = 0.0f;
data[1].X = -100.0f; // upper north
data[1].Y = 100.0f;
data[1].Z = 100.0f;
data[1].U = 1.0f;
data[1].V = 0.0f;
data[1].Nx = 1.0f;
data[1].Ny = 0.0f;
data[1].Nz = 0.0f;
data[2].X = -100.0f; // lower south
data[2].Y = -100.0f;
data[2].Z = -100.0f;
data[2].U = 0.0f;
data[2].V = 1.0f;
data[2].Nx = 1.0f;
data[2].Ny = 0.0f;
data[2].Nz = 0.0f;
data[3].X = -100.0f; // lower north
data[3].Y = -100.0f;
data[3].Z = 100.0f;
data[3].U = 1.0f;
data[3].V = 1.0f;
data[3].Nx = 1.0f;
data[3].Ny = 0.0f;
data[3].Nz = 0.0f;
break;
case SkyFaceSide.Right:
data[0].X = 100.0f; // upper ne
data[0].Y = 100.0f;
data[0].Z = 100.0f;
data[0].U = 0.0f;
data[0].V = 0.0f;
data[0].Nx = -1.0f;
data[0].Ny = 0.0f;
data[0].Nz = 0.0f;
data[1].X = 100.0f; // upper se
data[1].Y = 100.0f;
data[1].Z = -100.0f;
data[1].U = 1.0f;
data[1].V = 0.0f;
data[1].Nx = -1.0f;
data[1].Ny = 0.0f;
data[1].Nz = 0.0f;
data[2].X = 100.0f; // lower ne
data[2].Y = -100.0f;
data[2].Z = 100.0f;
data[2].U = 0.0f;
data[2].V = 1.0f;
data[2].Nx = -1.0f;
data[2].Ny = 0.0f;
data[2].Nz = 0.0f;
data[3].X = 100.0f; // lower se
data[3].Y = -100.0f;
data[3].Z = -100.0f;
data[3].U = 1.0f;
data[3].V = 1.0f;
data[3].Nx = -1.0f;
data[3].Ny = 0.0f;
data[3].Nz = 0.0f;
break;
case SkyFaceSide.Front:
data[0].X = -100.0f; // upper nw
data[0].Y = 100.0f;
data[0].Z = 100.0f;
data[0].U = 0.0f;
data[0].V = 0.0f;
data[0].Nx = 0.0f;
data[0].Ny = 0.0f;
data[0].Nz = -1.0f;
data[1].X = 100.0f; // upper ne
data[1].Y = 100.0f;
data[1].Z = 100.0f;
data[1].U = 1.0f;
data[1].V = 0.0f;
data[1].Nx = 0.0f;
data[1].Ny = 0.0f;
data[1].Nz = -1.0f;
data[2].X = -100.0f; // lower nw
data[2].Y = -100.0f;
data[2].Z = 100.0f;
data[2].U = 0.0f;
data[2].V = 1.0f;
data[2].Nx = 0.0f;
data[2].Ny = 0.0f;
data[2].Nz = -1.0f;
data[3].X = 100.0f; // lower ne
data[3].Y = -100.0f;
data[3].Z = 100.0f;
data[3].U = 1.0f;
data[3].V = 1.0f;
data[3].Nx = 0.0f;
data[3].Ny = 0.0f;
data[3].Nz = -1.0f;
break;
case SkyFaceSide.Back:
data[0].X = 100.0f; // upper se
data[0].Y = 100.0f;
data[0].Z = -100.0f;
data[0].U = 0.0f;
data[0].V = 0.0f;
data[0].Nx = 0.0f;
data[0].Ny = 0.0f;
data[0].Nz = -1.0f;
data[1].X = -100.0f; // upper sw
data[1].Y = 100.0f;
data[1].Z = -100.0f;
data[1].U = 1.0f;
data[1].V = 0.0f;
data[1].Nx = 0.0f;
data[1].Ny = 0.0f;
data[1].Nz = -1.0f;
data[2].X = 100.0f; // lower se
data[2].Y = -100.0f;
data[2].Z = -100.0f;
data[2].U = 0.0f;
data[2].V = 1.0f;
data[2].Nx = 0.0f;
data[2].Ny = 0.0f;
data[2].Nz = -1.0f;
data[3].X = -100.0f; // lower sw
data[3].Y = -100.0f;
data[3].Z = -100.0f;
data[3].U = 1.0f;
data[3].V = 1.0f;
data[3].Nx = 0.0f;
data[3].Ny = 0.0f;
data[3].Nz = -1.0f;
break;
}
this.corners.Write(data);
this.vertexBuffer.Unlock();
this.texture = new Texture(GameEngine.Device, textureName);
this.valid = true;
}
/// <inheritdoc /> public override void Copy(GraphicsBuffer destination, GraphicsBuffer source) => Copy((D3D12GraphicsBuffer)destination, (D3D12GraphicsBuffer)source);
internal static global::System.Runtime.InteropServices.HandleRef getCPtr(GraphicsBuffer obj)
{
return((obj == null) ? new global::System.Runtime.InteropServices.HandleRef(null, global::System.IntPtr.Zero) : obj.swigCPtr);
}
/// <inheritdoc /> public override void Copy(GraphicsTexture destination, GraphicsBuffer source) => Copy((VulkanGraphicsTexture)destination, (VulkanGraphicsBuffer)source);
public void FillLightAndReflectionProbeIndices(GraphicsBuffer buffer)
{
Validate();
FillLightAndReflectionProbeIndicesGraphicsBuffer(ptr, buffer);
}
public abstract void Write(byte[] data, ref int offset, Model model, GraphicsBuffer buffer);
public void DrawProcedural(GraphicsBuffer indexBuffer, Matrix4x4 matrix, Material material, int shaderPass, MeshTopology topology, int indexCount)
{
DrawProcedural(indexBuffer, matrix, material, shaderPass, topology, indexCount, 1);
}
public TestShader(GraphicsBuffer <float> buffer, Func <float, float> f)
{
DestinationBuffer = buffer;
this.f = f;
}
public void DrawProceduralIndirect(GraphicsBuffer indexBuffer, Matrix4x4 matrix, Material material, int shaderPass, MeshTopology topology, ComputeBuffer bufferWithArgs)
{
DrawProceduralIndirect(indexBuffer, matrix, material, shaderPass, topology, bufferWithArgs, 0);
}
public void SetBuffer(int nameID, GraphicsBuffer buffer)
{
SetGraphicsBuffer(nameID, buffer);
}
public static bool Run(GrassBakeSettings settings, int lod, out Mesh generatedMesh)
{
GrassLODLevelSettings currentLOD;
try
{
currentLOD = settings.grassLODLevelSettings[lod];
}
catch (Exception e)
{
Console.WriteLine(e);
generatedMesh = null;
return(false);
}
DecomposeMesh(currentLOD.grassBladeMesh, 0, out SourceVertex[] sourceGrassBladeVertices, out int[] sourceGrassBladeIndices);
int numBlades = (int)((settings.extents.x / settings.numTiles.x) * (settings.extents.y / settings.numTiles.y)
/ (currentLOD.density * currentLOD.density));
GeneratedVertex[] generatedVertices = new GeneratedVertex[numBlades * sourceGrassBladeVertices.Length];
int[] generatedIndices = new int[numBlades * sourceGrassBladeIndices.Length];
GraphicsBuffer sourceGrassBladeVertexBuffer = new GraphicsBuffer(GraphicsBuffer.Target.Structured, sourceGrassBladeIndices.Length, SOURCE_VERTEX_STRIDE);
GraphicsBuffer sourceGrassBladeIndexBuffer = new GraphicsBuffer(GraphicsBuffer.Target.Structured, sourceGrassBladeIndices.Length, SOURCE_INDEX_STRIDE);
GraphicsBuffer generatedVertexBuffer = new GraphicsBuffer(GraphicsBuffer.Target.Structured, generatedVertices.Length, GENERATED_VERTEX_STRIDE);
GraphicsBuffer generatedIndexBuffer = new GraphicsBuffer(GraphicsBuffer.Target.Structured, generatedIndices.Length, GENERATED_INDEX_STRIDE);
ComputeShader shader = settings.computeShader;
int idGrassKernel = shader.FindKernel("CSMain");
shader.SetBuffer(idGrassKernel, "_SourceGrassBladeVertices", sourceGrassBladeVertexBuffer);
shader.SetBuffer(idGrassKernel, "_SourceGrassBladeIndices", sourceGrassBladeIndexBuffer);
shader.SetBuffer(idGrassKernel, "_GeneratedVertices", generatedVertexBuffer);
shader.SetBuffer(idGrassKernel, "_GeneratedIndices", generatedIndexBuffer);
shader.SetVector("_MinMaxRandomScale", currentLOD.minMaxScale);
shader.SetVector("_TileSize", settings.extents / settings.numTiles);
shader.SetFloat("_Density", currentLOD.density);
shader.SetFloat("_MaxRandomPositionShift", currentLOD.maxRandomPositionShift);
shader.SetInt("_NumGrassBladeVertices", sourceGrassBladeVertices.Length);
shader.SetInt("_NumGrassBladeIndices", sourceGrassBladeIndices.Length);
sourceGrassBladeVertexBuffer.SetData(sourceGrassBladeVertices);
sourceGrassBladeIndexBuffer.SetData(sourceGrassBladeIndices);
int numBladesRemaining = numBlades;
for (int i = 0; i <= generatedVertices.Length / MAX_VERTS_PER_DISPATCH; ++i)
{
int maxBlades = MAX_VERTS_PER_DISPATCH / sourceGrassBladeVertices.Length;
int numBladesToCalculate = numBladesRemaining > maxBlades ? maxBlades : numBladesRemaining;
if (numBladesRemaining == 0)
{
break;
}
shader.SetInt("_NumBlades", numBladesToCalculate);
shader.SetInt("_StartBladeIndex", i * maxBlades);
shader.SetInt("_StartVertexIndex", i * Mathf.FloorToInt((float)MAX_VERTS_PER_DISPATCH / sourceGrassBladeVertices.Length) * sourceGrassBladeVertices.Length);
shader.GetKernelThreadGroupSizes(idGrassKernel, out uint threadGroupSize, out _, out _);
int dispatchSize = Mathf.CeilToInt((float)numBladesToCalculate / threadGroupSize);
shader.Dispatch(idGrassKernel, dispatchSize, 1, 1);
generatedVertexBuffer.GetData(generatedVertices, i * maxBlades * sourceGrassBladeVertices.Length, 0, numBladesToCalculate * sourceGrassBladeVertices.Length);
generatedIndexBuffer.GetData(generatedIndices, i * maxBlades * sourceGrassBladeIndices.Length, 0, numBladesToCalculate * sourceGrassBladeIndices.Length);
numBladesRemaining -= numBladesToCalculate;
}
generatedMesh = ComposeMesh(generatedVertices, generatedIndices);
sourceGrassBladeVertexBuffer.Release();
sourceGrassBladeIndexBuffer.Release();
generatedVertexBuffer.Release();
generatedIndexBuffer.Release();
return(true);
}
public ModelAttribute(GraphicsBuffer buffer, int offsetInBytes, Format format, int stride, ModelAttributeChannel channel, int index)
: this(GetName(channel, index), buffer, offsetInBytes, format, stride, channel, index)
{
}
private static ShaderGenerator CreateShaderGeneratorWithDelegate(GraphicsBuffer <float> sourceBuffer, GraphicsBuffer <float> destinationBuffer)
{
StructuredBufferResource <float> source = sourceBuffer.GetStructuredBuffer();
RWStructuredBufferResource <float> destination = destinationBuffer.GetRWStructuredBuffer();
Action <CSInput> action = input =>
{
destination[input.DispatchThreadId.X] = Math.Max(source[input.DispatchThreadId.X], 45);
};
return(new ShaderGenerator(action, new ShaderAttribute("compute"), new NumThreadsAttribute(100, 1, 1)));
}
public static RWStructuredBufferResource <T> GetRWStructuredBuffer <T>(this GraphicsBuffer <T> buffer) where T : unmanaged
{
return(new RWStructuredBufferResource <T>());
}
/// <summary>
/// Bind the specified <see cref="GraphicsBuffer"/> to this Vertex Array
/// </summary>
/// <param name="buffer"><see cref="GraphicsBuffer"/> to bind</param>
public void BindBuffer(GraphicsBuffer buffer)
{
Bind();
buffer.Bind();
}