public override string GenerateSharedPixelShader(ShaderStage stage, int methodIndex, int optionIndex)
{
var gen = new HalogramGenerator();
var bytecode = gen.GenerateSharedPixelShader(stage, methodIndex, optionIndex).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
public override string GeneratePixelShader(ShaderStage stage, List <int> shaderOptions)
{
var gen = new WaterGenerator(shaderOptions.Select(x => (byte)x).ToArray());
var bytecode = gen.GeneratePixelShader(stage).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
public override string GenerateSharedVertexShader(VertexType vertex, ShaderStage stage)
{
var gen = new HalogramGenerator();
var bytecode = gen.GenerateSharedVertexShader(vertex, stage).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
public override string GeneratePixelShader(ShaderStage stage, List <int> shaderOptions)
{
var albedo = (Albedo)shaderOptions[0];
var alpha_test = (Alpha_Test)shaderOptions[1];
var material_model = (Material_Model)shaderOptions[2];
var gen = new FoliageGenerator(albedo, alpha_test, material_model);
var bytecode = gen.GeneratePixelShader(stage).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
public override string GeneratePixelShader(ShaderStage stage, List <int> shaderOptions)
{
var albedo = (Albedo)shaderOptions[0];
var blend_mode = (Blend_Mode)shaderOptions[1];
var fog = (Fog)shaderOptions[2];
var gen = new LightVolumeGenerator(albedo, blend_mode, fog);
var bytecode = gen.GeneratePixelShader(stage).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
static void TestSharedVertexShader(ShaderType shaderType, VertexType vertexType, ShaderStage stage)
{
IShaderGenerator generator = GetShaderGenerator(shaderType);
if (generator.IsEntryPointSupported(stage) && generator.IsVertexShaderShared(stage) && generator.IsVertexFormatSupported(vertexType))
{
var bytecode = generator.GenerateSharedVertexShader(vertexType, stage).Bytecode;
var disassembly = D3DCompiler.Disassemble(bytecode);
WriteShaderFile($"generated_{stage.ToString().ToLower()}_{vertexType.ToString().ToLower()}.glvs", disassembly);
}
}
public override string GeneratePixelShader(ShaderStage stage, List <int> shaderOptions)
{
var warp = (Warp)shaderOptions[0];
var _base = (Base)shaderOptions[1];
var overlay_a = (Overlay_A)shaderOptions[2];
var overlay_b = (Overlay_B)shaderOptions[3];
var blend_type = (Blend_Mode)shaderOptions[4];
var gen = new ScreenGenerator(warp, _base, overlay_a, overlay_b, blend_type);
var bytecode = gen.GeneratePixelShader(stage).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
static void TestPixelShader(string name)
{
var bytecode = GenericPixelShaderGenerator.GeneratePixelShader(name, ShaderStage.Default.ToString());
var str = D3DCompiler.Disassemble(bytecode.Bytecode);
using (FileStream test = new FileInfo($"generated_{name}.pixl").Create())
using (StreamWriter writer = new StreamWriter(test))
{
writer.WriteLine(str);
}
Console.WriteLine(str);
}
public override string GeneratePixelShader(ShaderStage stage, List <int> shaderOptions)
{
var blend_type = (Blending)shaderOptions[0];
var env_map = (Environment_Mapping)shaderOptions[1];
var material_0 = (Material)shaderOptions[2];
var material_1 = (Material)shaderOptions[3];
var material_2 = (Material)shaderOptions[4];
var material_3 = (Material_No_Detail_Bump)shaderOptions[5];
var gen = new TerrainGenerator(blend_type, env_map, material_0, material_1, material_2, material_3);
var bytecode = gen.GeneratePixelShader(stage).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
static void TestPixelShader(ShaderType shaderType, ShaderStage stage, List <int> methods)
{
IShaderGenerator generator = GetTemplateShaderGenerator(shaderType, methods);
if (generator.IsEntryPointSupported(stage) && !generator.IsPixelShaderShared(stage))
{
var bytecode = generator.GeneratePixelShader(stage).Bytecode;
var parameters = generator.GetPixelShaderParameters();
var disassembly = D3DCompiler.Disassemble(bytecode);
string filename = $"generated_{stage.ToString().ToLower()}_{string.Join("_", methods)}.pixl";
WriteShaderFile(filename, disassembly);
}
}
static void TestSharedPixelShader(ShaderType shaderType, ShaderStage stage, int methodIndex, int optionIndex)
{
IShaderGenerator generator = GetShaderGenerator(shaderType);
byte[] bytecode;
string disassembly;
if (generator.IsSharedPixelShaderUsingMethods(stage))
{
if (methodIndex == -1 || optionIndex == -1)
{
for (int i = 0; i < generator.GetMethodCount(); i++)
{
if (generator.IsMethodSharedInEntryPoint(stage, i) && generator.IsPixelShaderShared(stage))
{
for (int j = 0; j < generator.GetMethodOptionCount(i); j++)
{
var result = generator.GenerateSharedPixelShader(stage, i, j);
if (result != null)
{
bytecode = generator.GenerateSharedPixelShader(stage, i, j).Bytecode;
disassembly = D3DCompiler.Disassemble(bytecode);
WriteShaderFile($"generated_{stage.ToString().ToLower()}_{i}_{j}.glps", disassembly);
}
}
}
}
}
else
{
var result = generator.GenerateSharedPixelShader(stage, -1, -1);
if (result != null)
{
bytecode = result.Bytecode;
disassembly = D3DCompiler.Disassemble(bytecode);
WriteShaderFile($"generated_{stage.ToString().ToLower()}_{methodIndex}_{optionIndex}.glps", disassembly);
}
}
}
else
{
var result = generator.GenerateSharedPixelShader(stage, -1, -1);
if (result != null)
{
bytecode = result.Bytecode;
disassembly = D3DCompiler.Disassemble(bytecode);
WriteShaderFile($"generated_{stage.ToString().ToLower()}.glps", disassembly);
}
}
}
public override string GeneratePixelShader(ShaderStage stage, List <int> shaderOptions)
{
var albedo = (Albedo)shaderOptions[0];
var blend_mode = (Blend_Mode)shaderOptions[1];
var render_pass = (Render_Pass)shaderOptions[2];
var specular = (Specular)shaderOptions[3];
var bump_mapping = (Bump_Mapping)shaderOptions[4];
var tinting = (Tinting)shaderOptions[5];
var gen = new DecalGenerator(albedo, blend_mode, render_pass, specular, bump_mapping, tinting);
var bytecode = gen.GeneratePixelShader(stage).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
public override string GeneratePixelShader(ShaderStage stage, List <int> shaderOptions)
{
var albedo = (Albedo)shaderOptions[0];
var self_illumination = (Self_Illumination)shaderOptions[1];
var blend_mode = (Blend_Mode)shaderOptions[2];
var misc = (Misc)shaderOptions[3];
var warp = (Warp)shaderOptions[4];
var overlay = (Overlay)shaderOptions[5];
var edge_fade = (Edge_Fade)shaderOptions[6];
var gen = new HalogramGenerator(albedo, self_illumination, blend_mode, misc, warp, overlay, edge_fade);
var bytecode = gen.GeneratePixelShader(stage).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
public override string GeneratePixelShader(ShaderStage stage, List <int> shaderOptions)
{
var albedo = (Albedo)shaderOptions[0];
var blend_mode = (Blend_Mode)shaderOptions[1];
var specialized_rendering = (Specialized_Rendering)shaderOptions[2];
var lighting = (Lighting)shaderOptions[3];
var render_targets = (Render_Targets)shaderOptions[4];
var depth_fade = (Depth_Fade)shaderOptions[5];
var black_point = (Black_Point)shaderOptions[6];
var fog = (Fog)shaderOptions[7];
var frame_blend = (Frame_Blend)shaderOptions[8];
var self_illumination = (Self_Illumination)shaderOptions[9];
var gen = new ParticleGenerator(albedo, blend_mode, specialized_rendering, lighting, render_targets, depth_fade, black_point, fog, frame_blend, self_illumination);
var bytecode = gen.GeneratePixelShader(stage).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
public override string GeneratePixelShader(ShaderStage stage, List <int> shaderOptions)
{
var albedo = (Albedo)shaderOptions[0];
var bump_mapping = (Bump_Mapping)shaderOptions[1];
var alpha_test = (Alpha_Test)shaderOptions[2];
var specular_mask = (Specular_Mask)shaderOptions[3];
var material_model = (Material_Model)shaderOptions[4];
var environment_mapping = (Environment_Mapping)shaderOptions[5];
var self_illumination = (Self_Illumination)shaderOptions[6];
var blend_mode = (Blend_Mode)shaderOptions[7];
var parallax = (Parallax)shaderOptions[8];
var misc = (Misc)shaderOptions[9];
var distortion = (Shared.Distortion)shaderOptions[10];
var gen = new ShaderGenerator(albedo, bump_mapping, alpha_test, specular_mask, material_model, environment_mapping, self_illumination, blend_mode, parallax, misc, distortion);
var bytecode = gen.GeneratePixelShader(stage).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
/// <summary>
/// Converts a new (1.235640+) pixel shader to one compatible with the 1.106708 pipeline.
/// </summary>
/// <param name="shaderData">The shader bytecode to convert.</param>
/// <param name="mode">The drawing mode.</param>
/// <returns>The new bytecode, or <c>null</c> if conversion failed.</returns>
public static byte[] ConvertNewPixelShaderToOld(byte[] shaderData, int mode)
{
if (mode != 0 && mode != 1)
{
return(shaderData); // Only default albedo shaders need to be fixed (?)
}
// Disassemble the shader
var disassembly = D3DCompiler.Disassemble(shaderData);
if (disassembly == null)
{
return(null);
}
var lines = disassembly.Split('\n').ToList();
// Default pixel shaders need to have their inputs remapped (see
// the vertex shader converter for more info).
//
// Albedo pixel shaders need to have sRGB color correction added.
// The code is based off of the shader for the street cone.
var highestConstant = -1;
var addedConstants = false;
var addedColorFix = false;
var highestTexcoord = -1;
var highestInput = -1;
var wIn = -1;
for (var i = 0; i < lines.Count; i++)
{
if (mode == 0)
{
// Default fixes
var match = Regex.Match(lines[i], @"dcl_texcoord(\d*)");
if (match.Success)
{
var texGroup = match.Groups[1];
var index = (texGroup.Length > 0) ? int.Parse(texGroup.Value) : 0;
highestTexcoord = Math.Max(highestTexcoord, index);
if (index >= 1)
{
lines[i] = lines[i].Remove(texGroup.Index, texGroup.Length).Insert(texGroup.Index, (index + 1).ToString());
}
}
match = Regex.Match(lines[i], @"dcl_\S+ v(\d+)");
if (match.Success)
{
var inGroup = match.Groups[1];
highestInput = Math.Max(highestInput, int.Parse(inGroup.Value));
}
else if (highestTexcoord >= 1 && highestInput >= 0)
{
wIn = highestInput + 1;
lines.Insert(i, string.Format(" dcl_texcoord1 v{0}.x", wIn));
lines.Add(string.Format(" mov oC2, v{0}.x", wIn));
break;
}
}
else if (mode == 1)
{
// Albedo fixes
var match = Regex.Match(lines[i], @"dcl_texcoord1 v1\.xyz");
if (match.Success)
{
wIn = 1;
lines[i] = lines[i].Remove(match.Index, match.Length).Insert(match.Index, "dcl_texcoord1 v1");
continue;
}
// Find the number of the highest-used constant register
match = Regex.Match(lines[i], @"def c(\d+)");
if (match.Success)
{
highestConstant = Math.Max(highestConstant, int.Parse(match.Groups[1].Value));
continue;
}
if (!addedConstants)
{
// Add color correction constants before input/output declarations
match = Regex.Match(lines[i], @"dcl_");
if (match.Success)
{
lines.Insert(i,
string.Format(" def c{0}, 0.416666657, 1.05499995, -0.0549999997, 0.00313080009\n" +
" def c{1}, 12.9200001, 0, 0, 0",
highestConstant + 1, highestConstant + 2));
addedConstants = true;
continue;
}
}
if (!addedColorFix)
{
// Add color correction code before the output color is set
match = Regex.Match(lines[i], @"\S+ (oC0)\.xyz");
if (match.Success)
{
// NOTE: This is really hacky and just assumes that
// r29-r31 aren't used. It seems to work OK, but if we
// run into issues then some sort of register
// allocation may need to be done.
var group = match.Groups[1];
lines[i] = lines[i].Remove(group.Index, group.Length).Insert(group.Index, "r31");
lines.Insert(++i,
string.Format(" log r30.x, r31.x\n" +
" log r30.y, r31.y\n" +
" log r30.z, r31.z\n" +
" mul r30.xyz, r30, c{0}.x\n" +
" exp r29.x, r30.x\n" +
" exp r29.y, r30.y\n" +
" exp r29.z, r30.z\n" +
" mad r30.xyz, r29, c{0}.y, c{0}.z\n" +
" add r29.xyz, -r31, c{0}.w\n" +
" mul r31.xyz, r31, c{1}.x\n" +
" cmp oC0.xyz, r29, r31, r30",
highestConstant + 1, highestConstant + 2));
if (wIn >= 0)
{
lines.Insert(++i, string.Format(" mov oC2, v{0}.w", wIn));
}
addedColorFix = true;
continue;
}
}
}
}
// Reassemble the shader
var newShader = string.Join("\n", lines);
return(D3DCompiler.Assemble(newShader));
}
public ShaderGeneratorResult(byte[] bytecode)
{
Bytecode = bytecode;
if (bytecode == null)
{
return;
}
var result = D3DCompiler.Disassemble(bytecode);
if (result == null)
{
return;
}
var registers = GetRegisters(result);
var parameters = GetRegisterParameters(result);
foreach (var parameters_kp in parameters)
{
var name = parameters_kp.Key;
var typename = parameters_kp.Value;
ShaderRegister.RegisterType register_type;
{
ShaderRegister.RegisterType?_register_type = null;
switch (typename)
{
case "float4":
case "float3":
case "float2":
case "float":
_register_type = ShaderRegister.RegisterType.Vector;
break;
case "int":
_register_type = ShaderRegister.RegisterType.Integer;
break;
case "bool":
_register_type = ShaderRegister.RegisterType.Boolean;
break;
}
if (typename.StartsWith("sampler"))
{
_register_type = ShaderRegister.RegisterType.Sampler;
}
register_type = _register_type ?? ShaderRegister.RegisterType.Vector;
}
foreach (var register in registers)
{
if (register.Name == name && register.registerType == register_type)
{
// Integers have an associated Vector, find and add it
if (register_type == ShaderRegister.RegisterType.Integer)
{
foreach (var register2 in registers)
{
if (register2.Name == name && register2.registerType == ShaderRegister.RegisterType.Vector)
{
Registers.Add(register2);
break;
}
}
}
Registers.Add(register);
break;
}
// slight hack, for int's that get compiled only as vector
else if (register.Name == name && register_type == ShaderRegister.RegisterType.Integer)
{
foreach (var register2 in registers)
{
if (register2.Name == name && register2.registerType == ShaderRegister.RegisterType.Vector)
{
Registers.Add(register2);
break;
}
}
}
}
}
}
public override object Execute(List <string> args)
{
if (args.Count < 2)
{
return(false);
}
bool use_assembly_compiler = args.Count >= 2 && args[0].ToLower() == "asm";
string file = args[args.Count - 1];
string shader_code = File.ReadAllText(file);
if (use_assembly_compiler && args.Count < 3)
{
return(false);
}
int index = use_assembly_compiler ? int.Parse(args[1]) : int.Parse(args[0]);
if (!use_assembly_compiler)
{
using (var reader = new StringReader(shader_code))
{
for (string line = reader.ReadLine(); line != null; line = reader.ReadLine())
{
var str = line.Trim();
if (str == "ps_3_0" || str == "vs_3_0")
{
use_assembly_compiler = true;
break;
}
}
}
}
byte[] bytecode = null;
if (use_assembly_compiler)
{
bytecode = D3DCompiler.Assemble(shader_code);
}
else
{
var profile = IsVertexShader ? "vs_3_0" : "ps_3_0";
try
{
bytecode = D3DCompiler.CompileFromFile(shader_code, "main", profile);
}
catch (Exception e)
{
Console.WriteLine(e);
return(true);
}
}
var disassembly = D3DCompiler.Disassemble(bytecode);
Console.WriteLine(disassembly);
if (typeof(T) == typeof(PixelShader) || typeof(T) == typeof(GlobalPixelShader))
{
var shader_data_block = new PixelShaderBlock
{
PCShaderBytecode = bytecode
};
if (typeof(T) == typeof(PixelShader))
{
var _definition = Definition as PixelShader;
var existing_block = _definition.Shaders[index];
shader_data_block.PCParameters = existing_block.PCParameters;
_definition.Shaders[index] = shader_data_block;
}
if (typeof(T) == typeof(GlobalPixelShader))
{
var _definition = Definition as GlobalPixelShader;
var existing_block = _definition.Shaders[index];
shader_data_block.PCParameters = existing_block.PCParameters;
_definition.Shaders[index] = shader_data_block;
}
}
if (typeof(T) == typeof(VertexShader) || typeof(T) == typeof(GlobalVertexShader))
{
var shader_data_block = new VertexShaderBlock
{
PCShaderBytecode = bytecode
};
if (typeof(T) == typeof(VertexShader))
{
var _definition = Definition as VertexShader;
var existing_block = _definition.Shaders[index];
shader_data_block.PCParameters = existing_block.PCParameters;
_definition.Shaders[index] = shader_data_block;
}
if (typeof(T) == typeof(GlobalVertexShader))
{
var _definition = Definition as GlobalVertexShader;
var existing_block = _definition.Shaders[index];
shader_data_block.PCParameters = existing_block.PCParameters;
_definition.Shaders[index] = shader_data_block;
}
}
return(true);
}
public override object Execute(List <string> args)
{
if (args.Count != 1)
{
return(false);
}
if (typeof(T) == typeof(PixelShader) || typeof(T) == typeof(GlobalPixelShader))
{
PixelShaderBlock shader_block = null;
if (typeof(T) == typeof(PixelShader))
{
var _definition = Definition as PixelShader;
shader_block = _definition.Shaders[int.Parse(args[0])];
}
if (typeof(T) == typeof(GlobalPixelShader))
{
var _definition = Definition as GlobalPixelShader;
shader_block = _definition.Shaders[int.Parse(args[0])];
}
var pc_shader = shader_block.PCShaderBytecode;
var disassembly = D3DCompiler.Disassemble(pc_shader);
if (pc_shader != null)
{
Console.WriteLine(disassembly);
}
else
{
Console.WriteLine("Failed to disassemble shader");
}
}
if (typeof(T) == typeof(VertexShader) || typeof(T) == typeof(GlobalVertexShader))
{
VertexShaderBlock shader_block = null;
if (typeof(T) == typeof(VertexShader))
{
var _definition = Definition as VertexShader;
shader_block = _definition.Shaders[int.Parse(args[0])];
}
if (typeof(T) == typeof(GlobalVertexShader))
{
var _definition = Definition as GlobalVertexShader;
shader_block = _definition.Shaders[int.Parse(args[0])];
}
var pc_shader = shader_block.PCShaderBytecode;
var disassembly = D3DCompiler.Disassemble(pc_shader);
if (pc_shader != null)
{
Console.WriteLine(disassembly);
}
else
{
Console.WriteLine("Failed to disassemble shader");
}
}
return(true);
}
static void TestSharedVertexBlack(VertexType vertexType, ShaderStage stage)
{
var gen = new ShaderBlackGenerator();
var bytecode = gen.GenerateSharedVertexShader(vertexType, stage).Bytecode;
WriteShaderFile($"generated_shader_black_{stage.ToString().ToLower()}_{vertexType.ToString().ToLower()}.glvs", D3DCompiler.Disassemble(bytecode));
}
static void TestPixelBlack()
{
var gen = new ShaderBlackGenerator();
var bytecode = gen.GeneratePixelShader(ShaderStage.Albedo).Bytecode;
WriteShaderFile($"generated_shader_black_{ShaderStage.Albedo.ToString().ToLower()}_0.pixl", D3DCompiler.Disassemble(bytecode));
}
public override string GenerateChudVertexShader(ChudShader chudShader, ShaderStage entry)
{
var bytecode = GenericVertexShaderGenerator.GenerateVertexShader(chudShader.ToString(), entry.ToString().ToLower(), true).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
/// <summary>
/// Converts a new (1.235640+) vertex shader to one compatible with the 1.106708 pipeline.
/// Note that this requires that models have binormals set so that X = Position.W and Y = Tangent.W.
/// </summary>
/// <param name="shaderData">The shader bytecode to convert.</param>
/// <param name="mode">The drawing mode.</param>
/// <param name="type">The vertex type.</param>
/// <returns>The new bytecode, or <c>null</c> if conversion failed.</returns>
public static byte[] ConvertNewVertexShaderToOld(byte[] shaderData, int mode, VertexType type)
{
// Only applies to world, rigid, skinned, and dual quat
if (type != VertexType.World && type != VertexType.Rigid && type != VertexType.Skinned && type != VertexType.DualQuat)
{
return(shaderData);
}
// Disassemble the shader
var disassembly = D3DCompiler.Disassemble(shaderData);
if (disassembly == null)
{
return(null);
}
var lines = disassembly.Split('\n').ToList();
// So, the reason that new vertex shaders don't work in 1.106708
// is because vertex declarations changed. For world, rigid, and
// skinned meshes, the normal and binormal components were removed,
// and the position and tangent vectors were extended to be 4D.
// (The W components are used for various things.) To convert a new
// vertex shader to use the old declaration format, we need to do
// the following:
//
// 1. Add an input declaration for the binormal, so we can pull the
// position.W and tangent.W values from it (assuming they're
// stored that way in the model).
//
// 2. Remap the W component of the position to the X component of
// the binormal. (The W component will never be used alongside
// the other position components because it's technically
// completely separate.)
//
// 3. The tangent will be unpacked by using a "mad" instruction.
// However, in 1.106708, the tangent isn't packed to begin with.
// So, we look for an instruction of the form
//
// mad [register], v[tangent], [constant], [constant]
//
// and replace it with instructions to load the components,
// with the W component of the tangent in the Y component of the
// binormal:
//
// mov [register].xyz, v[tangent]
// mov [register].w, v[binormal].y
//
// 4. Insert code to handle v_squish_params and v_mesh_squished.
// This is mainly needed for first-person models.
//
// 5. For albedo shaders only, o2 needs to be made 4D and the W
// component must be set to the W component of the position so
// that the pixel shader can pass it through to an output. This
// appears to be necessary for objects to receive shadows.
//
// 6. For default shaders only, a texcoord1 output has to be added
// for storing the W component of the position. This means that
// the other texcoord outputs need to be remapped.
var addedDeclarations = false;
var fixedTangent = false;
var lastInput = -1;
var tangentRegister = -1;
var binormalRegister = -1;
var storedZ = false;
var storedW = false;
var addedSquishParams = false;
string squishConstant1 = null;
string squishConstant2 = null;
var needSquishCheck = false;
var wOut = -1;
for (var i = 0; i < lines.Count; i++)
{
if (lines[i].StartsWith("//"))
{
continue;
}
// Find the tangent declaration and keep track of the highest input register
var match = Regex.Match(lines[i], @"dcl_(\S+) v(\d+)");
if (match.Success)
{
var name = match.Groups[1].Value;
var register = int.Parse(match.Groups[2].Value);
if (name == "tangent")
{
tangentRegister = register;
}
lastInput = Math.Max(lastInput, register);
}
if (!addedDeclarations)
{
// Once the first output is found, add a definition for the binormal input before it
match = Regex.Match(lines[i], @"dcl_(\S+) o\d+");
if (match.Success)
{
binormalRegister = lastInput + 1;
lines.Insert(i++, string.Format(" dcl_binormal v{0}", binormalRegister));
addedDeclarations = true;
continue;
}
}
if (!fixedTangent && tangentRegister >= 0 && binormalRegister >= 0)
{
// Adjust tangent unpacking
match = Regex.Match(lines[i], @"mad r(\d+), v" + tangentRegister);
if (match.Success)
{
var index = int.Parse(match.Groups[1].Value);
lines[i++] = string.Format(" mov r{0}.xyz, v{1}", index, tangentRegister);
lines.Insert(i, string.Format(" mov r{0}.w, v{1}.y", index, binormalRegister));
fixedTangent = true;
continue;
}
}
// When the output Z is set, store it to r31.z instead (for v_squish_params)
match = Regex.Match(lines[i], @"\S+ (o0)\.z");
if (match.Success)
{
var group = match.Groups[1];
lines[i] = lines[i].Remove(group.Index, group.Length).Insert(group.Index, "r31");
storedZ = true;
}
// When the output W is set, store it to r30.w instead (for v_squish_params)
match = Regex.Match(lines[i], @"\S+ (o0)\.w");
if (match.Success)
{
var group = match.Groups[1];
lines[i] = lines[i].Remove(group.Index, group.Length).Insert(group.Index, "r30");
storedW = true;
}
// If b8 (v_mesh_squished) is checked, we need to remove most
// of it and transform the previous instruction into a store to
// r31.z (for the v_squish_params fix later on).
match = Regex.Match(lines[i], @"if b8");
if (match.Success)
{
// Check that the previous instruction stores to a register
match = Regex.Match(lines[i - 1], @"\S+ (r\d+\..),");
if (match.Success)
{
// Get squish constant 1
var constMatch = Regex.Match(lines[i + 1], @"mov r\d+\.., (c\d+\..)");
if (constMatch.Success)
{
squishConstant1 = constMatch.Groups[1].Value;
}
// Get squish constant 2
constMatch = Regex.Match(lines[i + 3], @"mov r\d+\.., (c\d+\..)");
if (constMatch.Success)
{
squishConstant2 = constMatch.Groups[1].Value;
}
if (squishConstant1 != null && squishConstant2 != null)
{
// Remove the if block
lines.RemoveRange(i--, 6);
// Transform the previous instruction
var group = match.Groups[1];
lines[i] = lines[i].Remove(group.Index, group.Length).Insert(group.Index, "r31.z");
needSquishCheck = true;
storedZ = true;
}
}
}
// v_squish_params fix
if (storedZ && storedW && !addedSquishParams)
{
lines.Insert(++i, " mad r30.x, c250.x, r30.w, -c250.y\n" +
" mad r30.x, r30.x, c250.z, -r31.z");
if (needSquishCheck)
{
// Check v_mesh_squished
lines.Insert(++i,
string.Format(" mad r31.z, c250.w, r30.x, r31.z\n" +
" if b8\n" +
" mov r30.x, {0}\n" +
" else\n" +
" mov r30.x, {1}\n" +
" endif\n" +
" add o0.z, -r30.x, r31.z",
squishConstant1, squishConstant2));
}
else
{
lines.Insert(++i, " mad o0.z, c250.w, r30.x, r31.z");
}
lines.Insert(++i, " mov o0.w, r30.w");
// Needed for shadow receiving
if (wOut >= 0)
{
if (mode == 0)
{
lines.Insert(++i, string.Format(" mov o{0}.x, r30.w", wOut));
}
else if (mode == 1)
{
lines.Insert(++i, string.Format(" mov o{0}.w, r30.w", wOut));
}
}
addedSquishParams = true;
continue;
}
if (mode == 0)
{
// Default-only: add a texcoord1 output and remap input registers
match = Regex.Match(lines[i], @"dcl_texcoord(\d*) o(\d+)");
if (match.Success)
{
var texGroup = match.Groups[1];
var outGroup = match.Groups[2];
var outIndex = int.Parse(outGroup.Value);
if (texGroup.Length == 0)
{
wOut = outIndex + 1;
lines.Insert(++i, string.Format(" dcl_texcoord1 o{0}.x", outIndex + 1));
continue;
}
var texIndex = int.Parse(texGroup.Value);
lines[i] = lines[i].Remove(texGroup.Index, texGroup.Length).Insert(texGroup.Index, (texIndex + 1).ToString());
lines[i] = lines[i].Remove(outGroup.Index, outGroup.Length).Insert(outGroup.Index, (outIndex + 1).ToString());
continue;
}
if (wOut >= 0)
{
foreach (Match m in Regex.Matches(lines[i], @" o(\d+)"))
{
var group = m.Groups[1];
var index = int.Parse(group.Value);
if (index < wOut)
{
continue;
}
index++;
lines[i] = lines[i].Remove(group.Index, group.Length).Insert(group.Index, index.ToString());
}
}
}
// Albedo-only: make o2 be 4D
if (mode == 1)
{
match = Regex.Match(lines[i], @"dcl_texcoord1 o2\.xyz");
if (match.Success)
{
wOut = 2;
lines[i] = lines[i].Remove(match.Index, match.Length).Insert(match.Index, "dcl_texcoord1 o2");
continue;
}
}
if (binormalRegister >= 0)
{
// Change the source of the position W component
lines[i] = lines[i].Replace("v0.w", string.Format("v{0}.x", binormalRegister));
}
}
// Reassemble the shader
var newShader = string.Join("\n", lines);
return(D3DCompiler.Assemble(newShader));
}
public override string GenerateExplicitVertexShader(ExplicitShader explicitShader, ShaderStage entry)
{
var bytecode = GenericVertexShaderGenerator.GenerateVertexShader(explicitShader.ToString(), entry.ToString().ToLower(), false).Bytecode;
return(D3DCompiler.Disassemble(bytecode));
}
private string Disassemble(int shaderIndex)
{
string disassembly = null;
if (typeof(T) == typeof(PixelShader) || typeof(T) == typeof(GlobalPixelShader))
{
PixelShaderBlock shader_block = null;
if (typeof(T) == typeof(PixelShader))
{
var _definition = Definition as PixelShader;
if (shaderIndex < _definition.Shaders.Count)
{
shader_block = _definition.Shaders[shaderIndex];
}
else
{
return(null);
}
}
if (typeof(T) == typeof(GlobalPixelShader))
{
var _definition = Definition as GlobalPixelShader;
if (shaderIndex < _definition.Shaders.Count)
{
shader_block = _definition.Shaders[shaderIndex];
}
else
{
return(null);
}
}
var pc_shader = shader_block.PCShaderBytecode;
disassembly = D3DCompiler.Disassemble(pc_shader);
if (pc_shader == null)
{
disassembly = null;
}
}
if (typeof(T) == typeof(VertexShader) || typeof(T) == typeof(GlobalVertexShader))
{
VertexShaderBlock shader_block = null;
if (typeof(T) == typeof(VertexShader))
{
var _definition = Definition as VertexShader;
if (shaderIndex < _definition.Shaders.Count)
{
shader_block = _definition.Shaders[shaderIndex];
}
else
{
return(null);
}
}
if (typeof(T) == typeof(GlobalVertexShader))
{
var _definition = Definition as GlobalVertexShader;
if (shaderIndex < _definition.Shaders.Count)
{
shader_block = _definition.Shaders[shaderIndex];
}
else
{
return(null);
}
}
var pc_shader = shader_block.PCShaderBytecode;
disassembly = D3DCompiler.Disassemble(pc_shader);
if (pc_shader == null)
{
disassembly = null;
}
}
return(disassembly);
}