void ShaderD3D::parseAttributes(ShHandle compiler)
{
const std::string &hlsl = getTranslatedSource();
if (!hlsl.empty())
{
mActiveAttributes = *GetShaderVariables(ShGetAttributes(compiler));
FilterInactiveVariables(&mActiveAttributes);
}
}
bool ShaderD3D::compile(gl::Compiler *compiler, const std::string &source)
{
uncompile();
CompilerD3D *compilerD3D = GetImplAs<CompilerD3D>(compiler);
ShHandle compilerHandle = compilerD3D->getCompilerHandle(mShaderType);
mCompilerOutputType = ShGetShaderOutputType(compilerHandle);
compileToHLSL(compilerHandle, source);
if (mShaderType == GL_VERTEX_SHADER)
{
parseAttributes(compilerHandle);
}
parseVaryings(compilerHandle);
if (mShaderType == GL_FRAGMENT_SHADER)
{
std::sort(mVaryings.begin(), mVaryings.end(), CompareVarying);
const std::string &hlsl = getTranslatedSource();
if (!hlsl.empty())
{
mActiveOutputVariables = *GetShaderVariables(ShGetOutputVariables(compilerHandle));
FilterInactiveVariables(&mActiveOutputVariables);
}
}
#if ANGLE_SHADER_DEBUG_INFO == ANGLE_ENABLED
mDebugInfo += std::string("// ") + GetShaderTypeString(mShaderType) + " SHADER BEGIN\n";
mDebugInfo += "\n// GLSL BEGIN\n\n" + source + "\n\n// GLSL END\n\n\n";
mDebugInfo += "// INITIAL HLSL BEGIN\n\n" + getTranslatedSource() + "\n// INITIAL HLSL END\n\n\n";
// Successive steps will append more info
#else
mDebugInfo += getTranslatedSource();
#endif
return !getTranslatedSource().empty();
}
void ShaderD3D::compileToHLSL(ShHandle compiler, const std::string &source)
{
int compileOptions = (SH_OBJECT_CODE | SH_VARIABLES);
// D3D11 Feature Level 9_3 and below do not support non-constant loop indexers in fragment
// shaders.
// Shader compilation will fail. To provide a better error message we can instruct the
// compiler to pre-validate.
if (mRenderer->getRendererLimitations().shadersRequireIndexedLoopValidation)
{
compileOptions |= SH_VALIDATE_LOOP_INDEXING;
}
std::string sourcePath;
#if !defined (ANGLE_ENABLE_WINDOWS_STORE)
if (gl::DebugAnnotationsActive())
{
sourcePath = getTempPath();
writeFile(sourcePath.c_str(), source.c_str(), source.length());
compileOptions |= SH_LINE_DIRECTIVES;
}
#endif
int result;
if (sourcePath.empty())
{
const char* sourceStrings[] =
{
source.c_str(),
};
result = ShCompile(compiler, sourceStrings, ArraySize(sourceStrings), compileOptions);
}
else
{
const char* sourceStrings[] =
{
sourcePath.c_str(),
source.c_str(),
};
result = ShCompile(compiler, sourceStrings, ArraySize(sourceStrings), compileOptions | SH_SOURCE_PATH);
}
mShaderVersion = ShGetShaderVersion(compiler);
if (result)
{
mTranslatedSource = ShGetObjectCode(compiler);
#ifdef _DEBUG
// Prefix hlsl shader with commented out glsl shader
// Useful in diagnostics tools like pix which capture the hlsl shaders
std::ostringstream hlslStream;
hlslStream << "// GLSL\n";
hlslStream << "//\n";
size_t curPos = 0;
while (curPos != std::string::npos)
{
size_t nextLine = source.find("\n", curPos);
size_t len = (nextLine == std::string::npos) ? std::string::npos : (nextLine - curPos + 1);
hlslStream << "// " << source.substr(curPos, len);
curPos = (nextLine == std::string::npos) ? std::string::npos : (nextLine + 1);
}
hlslStream << "\n\n";
hlslStream << mTranslatedSource;
mTranslatedSource = hlslStream.str();
#endif
mUniforms = *GetShaderVariables(ShGetUniforms(compiler));
for (size_t uniformIndex = 0; uniformIndex < mUniforms.size(); uniformIndex++)
{
const sh::Uniform &uniform = mUniforms[uniformIndex];
if (uniform.staticUse && !uniform.isBuiltIn())
{
unsigned int index = static_cast<unsigned int>(-1);
bool getUniformRegisterResult = ShGetUniformRegister(compiler, uniform.name, &index);
UNUSED_ASSERTION_VARIABLE(getUniformRegisterResult);
ASSERT(getUniformRegisterResult);
mUniformRegisterMap[uniform.name] = index;
}
}
mInterfaceBlocks = *GetShaderVariables(ShGetInterfaceBlocks(compiler));
for (size_t blockIndex = 0; blockIndex < mInterfaceBlocks.size(); blockIndex++)
{
const sh::InterfaceBlock &interfaceBlock = mInterfaceBlocks[blockIndex];
if (interfaceBlock.staticUse)
{
unsigned int index = static_cast<unsigned int>(-1);
bool blockRegisterResult = ShGetInterfaceBlockRegister(compiler, interfaceBlock.name, &index);
UNUSED_ASSERTION_VARIABLE(blockRegisterResult);
ASSERT(blockRegisterResult);
mInterfaceBlockRegisterMap[interfaceBlock.name] = index;
}
}
}
else
{
mInfoLog = ShGetInfoLog(compiler);
TRACE("\n%s", mInfoLog.c_str());
}
}
void OmniMapD3D::SetupAllShaderVaribles()
{
int N_Channels;
int TextureIds[OMNIMAP_maxChannelFaces];
D3DXMATRIX textureMats[OMNIMAP_maxChannelFaces];
GetShaderVariables(N_Channels, TextureIds);
((OmniMapShaderD3D *) shaders)->SetTextureIds(N_Channels);
for (int i = 0; i < N_Channels; i++)
{
OmniMapChannelBase *channel = this->GetChannel(i);
D3DXQUATERNION tmpQuat;
D3DXMATRIX *pTextureMat = &textureMats[i];
D3DXMATRIX tmpMat;
D3DXMatrixIdentity(pTextureMat);
const D3DXVECTOR3 zeroVec(0.0,0.0,0.0);
const D3DXVECTOR3 transVec(.5,.5,.5);
D3DXMatrixAffineTransformation(pTextureMat, .5, &zeroVec, D3DXQuaternionIdentity(&tmpQuat),
&transVec);
D3DXMATRIX channelProj;
((OmniMapChannelD3D *) channel)->GetProjectionMatrixRH(&channelProj);
D3DXMatrixMultiply(pTextureMat, &channelProj, pTextureMat);
D3DXMATRIX viewMatrix;
((OmniMapChannelD3D *) channel)->GetViewMatrix2(&viewMatrix);
D3DXMatrixMultiply(pTextureMat, &viewMatrix, pTextureMat);
}
((OmniMapShaderD3D *) shaders)->SetTextureMatrices(textureMats, N_Channels);
D3DVIEWPORT9 vp;
d3dDevice->GetViewport(&vp);
float yOffset1, yOffset2, yScale;
if (((glViewportsettings0 + glViewportsettings2) <= vp.Width)
&& (glViewportsettings0 >= 0)
&& ((glViewportsettings1 + glViewportsettings3) <= vp.Height)
&& (glViewportsettings1 >= 0))
{ //if image circle is inside of the viewport, use opengl approach
vp.X = (DWORD) glViewportsettings0;
vp.Y = (DWORD) glViewportsettings1;
vp.Width = (DWORD) glViewportsettings2;
vp.Height = (DWORD) glViewportsettings3;
d3dDevice->SetViewport(&vp);
yOffset1 = 0.0;
yOffset2 = 0.0;
yScale = 1.0;
} else { // FIX FOR DX11 VIEWPORT if image circle is outside of the viewport
if (glViewportsettings2 <1.0f) glViewportsettings2 = (float)vp.Width; // UNTESTED
if(glViewportsettings3<1.0f) glViewportsettings3 = (float) vp.Height; // UNTESTED
float HeightImageCircle = glViewportsettings3;
// back out the offset from the lua... this
float offsetSuggestedByLua = (glViewportsettings1 - .5f* vp.Height + .5f* vp.Width)/vp.Width;
float aspect = vp.Width/(float)vp.Height;
float offsetByDX11 =offsetSuggestedByLua*2.0f*aspect;
yScale = HeightImageCircle /((float)vp.Height);
yOffset1 = 0;
yOffset2 = offsetByDX11;
}
if (yOffset1 != 0.0) yOffset2 = 0.0;
((OmniMapShaderD3D *) shaders)->omnimapFX->SetFloat( "yScale", yScale);
((OmniMapShaderD3D *) shaders)->omnimapFX->SetFloat( "yOffset1", yOffset1);
((OmniMapShaderD3D *) shaders)->omnimapFX->SetFloat( "yOffset2", yOffset2);
((OmniMapShaderD3D *) shaders)->omnimapFX->SetMatrix( "g_mProjection", &worldViewProjection );
((OmniMapShaderD3D *) shaders)->omnimapFX->SetMatrix( "g_mWorldView", &worldView );
if(StencilMask_filename)
((OmniMapShaderD3D *) shaders)->StencilMask_Bind(6);//+1
}
void Shader::resolveCompile()
{
if (!mState.compilePending())
{
return;
}
ASSERT(mBoundCompiler.get());
ShHandle compilerHandle = mBoundCompiler->getCompilerHandle(mState.mShaderType);
std::vector<const char *> srcStrings;
if (!mLastCompiledSourcePath.empty())
{
srcStrings.push_back(mLastCompiledSourcePath.c_str());
}
srcStrings.push_back(mLastCompiledSource.c_str());
if (!sh::Compile(compilerHandle, &srcStrings[0], srcStrings.size(), mLastCompileOptions))
{
mInfoLog = sh::GetInfoLog(compilerHandle);
WARN() << std::endl << mInfoLog;
mState.mCompileStatus = CompileStatus::NOT_COMPILED;
return;
}
mState.mTranslatedSource = sh::GetObjectCode(compilerHandle);
#if !defined(NDEBUG)
// Prefix translated shader with commented out un-translated shader.
// Useful in diagnostics tools which capture the shader source.
std::ostringstream shaderStream;
shaderStream << "// GLSL\n";
shaderStream << "//\n";
std::istringstream inputSourceStream(mState.mSource);
std::string line;
while (std::getline(inputSourceStream, line))
{
// Remove null characters from the source line
line.erase(std::remove(line.begin(), line.end(), '\0'), line.end());
shaderStream << "// " << line << std::endl;
}
shaderStream << "\n\n";
shaderStream << mState.mTranslatedSource;
mState.mTranslatedSource = shaderStream.str();
#endif // !defined(NDEBUG)
// Gather the shader information
mState.mShaderVersion = sh::GetShaderVersion(compilerHandle);
mState.mUniforms = GetShaderVariables(sh::GetUniforms(compilerHandle));
mState.mUniformBlocks = GetShaderVariables(sh::GetUniformBlocks(compilerHandle));
mState.mShaderStorageBlocks = GetShaderVariables(sh::GetShaderStorageBlocks(compilerHandle));
switch (mState.mShaderType)
{
case ShaderType::Compute:
{
mState.mLocalSize = sh::GetComputeShaderLocalGroupSize(compilerHandle);
if (mState.mLocalSize.isDeclared())
{
angle::CheckedNumeric<uint32_t> checked_local_size_product(mState.mLocalSize[0]);
checked_local_size_product *= mState.mLocalSize[1];
checked_local_size_product *= mState.mLocalSize[2];
if (!checked_local_size_product.IsValid())
{
WARN() << std::endl
<< "Integer overflow when computing the product of local_size_x, "
<< "local_size_y and local_size_z.";
mState.mCompileStatus = CompileStatus::NOT_COMPILED;
return;
}
if (checked_local_size_product.ValueOrDie() >
mCurrentMaxComputeWorkGroupInvocations)
{
WARN() << std::endl
<< "The total number of invocations within a work group exceeds "
<< "MAX_COMPUTE_WORK_GROUP_INVOCATIONS.";
mState.mCompileStatus = CompileStatus::NOT_COMPILED;
return;
}
}
break;
}
case ShaderType::Vertex:
{
{
mState.mOutputVaryings = GetShaderVariables(sh::GetOutputVaryings(compilerHandle));
mState.mAllAttributes = GetShaderVariables(sh::GetAttributes(compilerHandle));
mState.mActiveAttributes = GetActiveShaderVariables(&mState.mAllAttributes);
mState.mNumViews = sh::GetVertexShaderNumViews(compilerHandle);
}
break;
}
case ShaderType::Fragment:
{
mState.mInputVaryings = GetShaderVariables(sh::GetInputVaryings(compilerHandle));
// TODO(jmadill): Figure out why we only sort in the FS, and if we need to.
std::sort(mState.mInputVaryings.begin(), mState.mInputVaryings.end(), CompareShaderVar);
mState.mActiveOutputVariables =
GetActiveShaderVariables(sh::GetOutputVariables(compilerHandle));
break;
}
case ShaderType::Geometry:
{
mState.mInputVaryings = GetShaderVariables(sh::GetInputVaryings(compilerHandle));
mState.mOutputVaryings = GetShaderVariables(sh::GetOutputVaryings(compilerHandle));
if (sh::HasValidGeometryShaderInputPrimitiveType(compilerHandle))
{
mState.mGeometryShaderInputPrimitiveType = FromGLenum<PrimitiveMode>(
sh::GetGeometryShaderInputPrimitiveType(compilerHandle));
}
if (sh::HasValidGeometryShaderOutputPrimitiveType(compilerHandle))
{
mState.mGeometryShaderOutputPrimitiveType = FromGLenum<PrimitiveMode>(
sh::GetGeometryShaderOutputPrimitiveType(compilerHandle));
}
if (sh::HasValidGeometryShaderMaxVertices(compilerHandle))
{
mState.mGeometryShaderMaxVertices =
sh::GetGeometryShaderMaxVertices(compilerHandle);
}
mState.mGeometryShaderInvocations = sh::GetGeometryShaderInvocations(compilerHandle);
break;
}
default:
UNREACHABLE();
}
ASSERT(!mState.mTranslatedSource.empty());
bool success = mImplementation->postTranslateCompile(mBoundCompiler.get(), &mInfoLog);
mState.mCompileStatus = success ? CompileStatus::COMPILED : CompileStatus::NOT_COMPILED;
}
void Shader::compile(Compiler *compiler)
{
mData.mTranslatedSource.clear();
mInfoLog.clear();
mData.mShaderVersion = 100;
mData.mVaryings.clear();
mData.mUniforms.clear();
mData.mInterfaceBlocks.clear();
mData.mActiveAttributes.clear();
mData.mActiveOutputVariables.clear();
ShHandle compilerHandle = compiler->getCompilerHandle(mData.mShaderType);
std::stringstream sourceStream;
std::string sourcePath;
int additionalOptions =
mImplementation->prepareSourceAndReturnOptions(&sourceStream, &sourcePath);
int compileOptions = (SH_OBJECT_CODE | SH_VARIABLES | additionalOptions);
// Some targets (eg D3D11 Feature Level 9_3 and below) do not support non-constant loop indexes
// in fragment shaders. Shader compilation will fail. To provide a better error message we can
// instruct the compiler to pre-validate.
if (mRendererLimitations.shadersRequireIndexedLoopValidation)
{
compileOptions |= SH_VALIDATE_LOOP_INDEXING;
}
std::string sourceString = sourceStream.str();
std::vector<const char *> sourceCStrings;
if (!sourcePath.empty())
{
sourceCStrings.push_back(sourcePath.c_str());
}
sourceCStrings.push_back(sourceString.c_str());
bool result =
ShCompile(compilerHandle, &sourceCStrings[0], sourceCStrings.size(), compileOptions);
if (!result)
{
mInfoLog = ShGetInfoLog(compilerHandle);
TRACE("\n%s", mInfoLog.c_str());
mCompiled = false;
return;
}
mData.mTranslatedSource = ShGetObjectCode(compilerHandle);
#ifndef NDEBUG
// Prefix translated shader with commented out un-translated shader.
// Useful in diagnostics tools which capture the shader source.
std::ostringstream shaderStream;
shaderStream << "// GLSL\n";
shaderStream << "//\n";
size_t curPos = 0;
while (curPos != std::string::npos)
{
size_t nextLine = mData.mSource.find("\n", curPos);
size_t len = (nextLine == std::string::npos) ? std::string::npos : (nextLine - curPos + 1);
shaderStream << "// " << mData.mSource.substr(curPos, len);
curPos = (nextLine == std::string::npos) ? std::string::npos : (nextLine + 1);
}
shaderStream << "\n\n";
shaderStream << mData.mTranslatedSource;
mData.mTranslatedSource = shaderStream.str();
#endif
// Gather the shader information
mData.mShaderVersion = ShGetShaderVersion(compilerHandle);
mData.mVaryings = GetShaderVariables(ShGetVaryings(compilerHandle));
mData.mUniforms = GetShaderVariables(ShGetUniforms(compilerHandle));
mData.mInterfaceBlocks = GetShaderVariables(ShGetInterfaceBlocks(compilerHandle));
if (mData.mShaderType == GL_VERTEX_SHADER)
{
mData.mActiveAttributes = GetActiveShaderVariables(ShGetAttributes(compilerHandle));
}
else
{
ASSERT(mData.mShaderType == GL_FRAGMENT_SHADER);
// TODO(jmadill): Figure out why we only sort in the FS, and if we need to.
std::sort(mData.mVaryings.begin(), mData.mVaryings.end(), CompareShaderVar);
mData.mActiveOutputVariables =
GetActiveShaderVariables(ShGetOutputVariables(compilerHandle));
}
ASSERT(!mData.mTranslatedSource.empty());
mCompiled = mImplementation->postTranslateCompile(compiler, &mInfoLog);
}
void ShaderD3D::compileToHLSL(void *compiler, const std::string &source)
{
// ensure the compiler is loaded
initializeCompiler();
int compileOptions = (SH_OBJECT_CODE | SH_VARIABLES);
std::string sourcePath;
#if !defined (ANGLE_ENABLE_WINDOWS_STORE)
if (gl::perfActive())
{
sourcePath = getTempPath();
writeFile(sourcePath.c_str(), source.c_str(), source.length());
compileOptions |= SH_LINE_DIRECTIVES;
}
#endif
int result;
if (sourcePath.empty())
{
const char* sourceStrings[] =
{
source.c_str(),
};
result = ShCompile(compiler, sourceStrings, ArraySize(sourceStrings), compileOptions);
}
else
{
const char* sourceStrings[] =
{
sourcePath.c_str(),
source.c_str(),
};
result = ShCompile(compiler, sourceStrings, ArraySize(sourceStrings), compileOptions | SH_SOURCE_PATH);
}
mShaderVersion = ShGetShaderVersion(compiler);
if (mShaderVersion == 300 && mRenderer->getCurrentClientVersion() < 3)
{
mInfoLog = "GLSL ES 3.00 is not supported by OpenGL ES 2.0 contexts";
TRACE("\n%s", mInfoLog.c_str());
}
else if (result)
{
mHlsl = ShGetObjectCode(compiler);
#ifdef _DEBUG
// Prefix hlsl shader with commented out glsl shader
// Useful in diagnostics tools like pix which capture the hlsl shaders
std::ostringstream hlslStream;
hlslStream << "// GLSL\n";
hlslStream << "//\n";
size_t curPos = 0;
while (curPos != std::string::npos)
{
size_t nextLine = source.find("\n", curPos);
size_t len = (nextLine == std::string::npos) ? std::string::npos : (nextLine - curPos + 1);
hlslStream << "// " << source.substr(curPos, len);
curPos = (nextLine == std::string::npos) ? std::string::npos : (nextLine + 1);
}
hlslStream << "\n\n";
hlslStream << mHlsl;
mHlsl = hlslStream.str();
#endif
mUniforms = *GetShaderVariables(ShGetUniforms(compiler));
for (size_t uniformIndex = 0; uniformIndex < mUniforms.size(); uniformIndex++)
{
const sh::Uniform &uniform = mUniforms[uniformIndex];
if (uniform.staticUse)
{
unsigned int index = -1;
bool result = ShGetUniformRegister(compiler, uniform.name, &index);
UNUSED_ASSERTION_VARIABLE(result);
ASSERT(result);
mUniformRegisterMap[uniform.name] = index;
}
}
mInterfaceBlocks = *GetShaderVariables(ShGetInterfaceBlocks(compiler));
for (size_t blockIndex = 0; blockIndex < mInterfaceBlocks.size(); blockIndex++)
{
const sh::InterfaceBlock &interfaceBlock = mInterfaceBlocks[blockIndex];
if (interfaceBlock.staticUse)
{
unsigned int index = -1;
bool result = ShGetInterfaceBlockRegister(compiler, interfaceBlock.name, &index);
UNUSED_ASSERTION_VARIABLE(result);
ASSERT(result);
mInterfaceBlockRegisterMap[interfaceBlock.name] = index;
}
}
}
else
{
mInfoLog = ShGetInfoLog(compiler);
TRACE("\n%s", mInfoLog.c_str());
}
}