Refactor and enhance codebase for maintainability

Refactored and reorganized the codebase to improve readability, performance, and maintainability. Introduced new interfaces and structs for better resource management, updated project configuration files, and refactored shader and graphics pipeline management. Improved error handling, code formatting, and removed unused code and namespaces. Updated DLL references and method signatures for consistency and maintainability.
This commit is contained in:
2025-10-22 18:46:39 +09:00
parent 6d1b510ac1
commit d2d9f5feb7
80 changed files with 2836 additions and 2198 deletions

View File

@@ -28,38 +28,43 @@ struct PixelInput
float4 uv : TEXCOORD0;
};
// Bindless vertex shader that fetches vertex data from bindless buffers
PixelInput VSMain(uint vertexId : SV_VertexID, uint instanceId : SV_InstanceID)
[NumThreads(3, 1, 1)] // 3 threads per triangle
[OutputTopology("triangle")]
void MSMain(
uint3 groupThreadID : SV_GroupThreadID,
uint groupID : SV_GroupID,
out vertices PixelInput outVerts[3],
out indices uint3 outTris[1])
{
// Get bindless buffers
// Fetch bindless buffers
ByteAddressBuffer vertexBuffer = ResourceDescriptorHeap[_VertexBufferIndex];
ByteAddressBuffer indexBuffer = ResourceDescriptorHeap[_IndexBufferIndex];
// For fully bindless rendering, we use instanced drawing where:
// - Each instance represents a triangle (instanceId = triangle index)
// - vertexId goes from 0 to 2 (the 3 vertices of the triangle)
// Calculate the index into the index buffer
uint indexOffset = (instanceId * 3 + vertexId) * 4; // 4 bytes per index (uint32)
// Compute the triangles vertex indices
uint vertexId = groupThreadID.x;
uint indexOffset = (groupID.x * 3 + vertexId) * 4; // uint32 index
uint vertexIndex = indexBuffer.Load(indexOffset);
// Calculate the offset into the vertex buffer
uint vertexOffset = vertexIndex * 80; // 80 bytes per vertex (5 * float4)
// Load vertex data from bindless vertex buffer
Vertex vertex;
vertex.position = asfloat(vertexBuffer.Load4(vertexOffset + 0));
vertex.normal = asfloat(vertexBuffer.Load4(vertexOffset + 16));
vertex.tangent = asfloat(vertexBuffer.Load4(vertexOffset + 32));
vertex.color = asfloat(vertexBuffer.Load4(vertexOffset + 48));
vertex.uv = asfloat(vertexBuffer.Load4(vertexOffset + 64));
// Output transformed vertex
PixelInput output;
output.position = vertex.position;
output.color = vertex.color;
output.uv = vertex.uv;
return output;
// Load vertex attributes
uint vertexOffset = vertexIndex * 80; // 80 bytes per vertex
Vertex v;
v.position = asfloat(vertexBuffer.Load4(vertexOffset + 0));
v.normal = asfloat(vertexBuffer.Load4(vertexOffset + 16));
v.tangent = asfloat(vertexBuffer.Load4(vertexOffset + 32));
v.color = asfloat(vertexBuffer.Load4(vertexOffset + 48));
v.uv = asfloat(vertexBuffer.Load4(vertexOffset + 64));
// Write vertex output
outVerts[vertexId].position = v.position;
outVerts[vertexId].color = v.color;
outVerts[vertexId].uv = v.uv;
// Thread 0 defines topology
if (vertexId == 0)
{
SetMeshOutputCounts(3, 1);
outTris[0] = uint3(0, 1, 2);
}
}
float4 PSMain(PixelInput input) : SV_TARGET