std::string render(const bool propper, const std::string syntax_s, const std::string date_format = DATE_FORMAT_S, const DWORD langId = 0) const {
std::wstring syntax = utf8::cvt<std::wstring>(syntax_s);
if (propper) {
// To obtain the appropriate message string from the message file, load the message file with the LoadLibrary function and use the FormatMessage function
strEx::replace(syntax, _T("%message%"), render_message(langId));
} else {
strEx::replace(syntax, _T("%message%"), _T("%message% needs the descriptions flag set!"));
}
strEx::replace(syntax, _T("%source%"), get_source());
strEx::replace(syntax, _T("%computer%"), get_computer());
strEx::replace(syntax, _T("%generated%"), strEx::format_date(get_time_generated(), utf8::cvt<std::wstring>(date_format)));
strEx::replace(syntax, _T("%written%"), strEx::format_date(get_time_written(), utf8::cvt<std::wstring>(date_format)));
strEx::replace(syntax, _T("%generated-raw%"), strEx::itos(pevlr_->TimeGenerated));
strEx::replace(syntax, _T("%written-raw%"), strEx::itos(pevlr_->TimeWritten));
strEx::replace(syntax, _T("%type%"), translateType(eventType()));
strEx::replace(syntax, _T("%category%"), strEx::itos(pevlr_->EventCategory));
strEx::replace(syntax, _T("%facility%"), strEx::itos(facility()));
strEx::replace(syntax, _T("%qualifier%"), strEx::itos(facility()));
strEx::replace(syntax, _T("%customer%"), strEx::itos(customer()));
strEx::replace(syntax, _T("%rawid%"), strEx::itos(raw_id()));
strEx::replace(syntax, _T("%severity%"), translateSeverity(severity()));
strEx::replace(syntax, _T("%strings%"), enumStrings());
strEx::replace(syntax, _T("%level%"), translateType(eventType()));
strEx::replace(syntax, _T("%log%"), utf8::cvt<std::wstring>(file_));
strEx::replace(syntax, _T("%file%"), utf8::cvt<std::wstring>(file_));
strEx::replace(syntax, _T("%id%"), strEx::itos(eventID()));
strEx::replace(syntax, _T("%user%"), userSID());
return utf8::cvt<std::string>(syntax);
}
TString buildArrayConstructorString(const TType& type) {
std::stringstream constructor;
constructor << getTypeString(translateType(&type))
<< '[' << type.getArraySize() << ']';
return TString(constructor.str().c_str());
}
/** Create a shader from ASCII string.
* @param [in] type Shader type.
* @param [in] in Shader source code.
* @return true the shader was successfully created and compiled.
*/
bool Shader::create(Shader::Type type, char const * in)
{
GLenum internalType;
/* Sanity check. */
if(NULL == in)
{
return false;
}
internalType = translateType(type);
if(GL_INVALID_ENUM == internalType)
{
return false;
}
_type = type;
_id = glCreateShader(internalType);
/* @todo check for errors */
glShaderSource(_id, 1, const_cast<GLchar const **>(&in), NULL);
/* @todo check for errors */
glCompileShader(_id);
/* @todo check for error */
GLint result;
glGetShaderiv(_id, GL_COMPILE_STATUS, &result);
if(GL_FALSE == result)
{
infoLog();
return false;
}
return true;
}
static int loadCertFile(SSL_CTX *pCtx, const char *pFile, int type)
{
char *pBegin, buf[MAX_CERT_LENGTH];
BIO *in;
X509 *cert = NULL;
int len;
int ret;
unsigned int digestlen;
unsigned char digest[EVP_MAX_MD_SIZE];
/* THIS FILE TYPE WILL NOT BE HANDLED HERE.
* Just left this here in case of future implementation.*/
if (translateType(type) == SSL_FILETYPE_ASN1)
return LS_FAIL;
len = loadPemWithMissingDash(pFile, buf, MAX_CERT_LENGTH, &pBegin);
if (len == -1)
return LS_FAIL;
in = BIO_new_mem_buf((void *)pBegin, len);
cert = PEM_read_bio_X509(in, NULL, 0, NULL);
BIO_free(in);
if (!cert)
return LS_FAIL;
if (( ret = SSL_CTX_use_certificate(pCtx, cert)) == 1 )
{
if ( X509_digest(cert, EVP_sha1(), digest, &digestlen) == 0)
LS_DBG_L("Creating cert digest failed");
else if (SslContext::setupIdContext(pCtx, digest, digestlen) != LS_OK)
LS_DBG_L("Digest id context failed");
}
X509_free(cert);
return ret;
}
bool TGlslOutputTraverser::parseInitializer( TIntermBinary *node )
{
TIntermTyped *left, *right;
left = node->getLeft();
right = node->getRight();
if (!left->getAsSymbolNode())
return false; //Something is likely seriously wrong
TIntermSymbol *symNode = left->getAsSymbolNode();
if (symNode->getBasicType() == EbtStruct)
return false;
GlslSymbol * sym = NULL;
if ( !current->hasSymbol( symNode->getId() ) )
{
int array = symNode->getTypePointer()->isArray() ? symNode->getTypePointer()->getArraySize() : 0;
const char* semantic = "";
if (symNode->getInfo())
semantic = symNode->getInfo()->getSemantic().c_str();
sym = new GlslSymbol( symNode->getSymbol().c_str(), semantic, symNode->getId(),
translateType(symNode->getTypePointer()), m_UsePrecision?node->getPrecision():EbpUndefined, translateQualifier(symNode->getQualifier()), array);
current->addSymbol(sym);
}
else
return false; //can't init already declared variable
if (right->getAsTyped())
{
std::stringstream ss;
std::stringstream* oldOut = ¤t->getActiveOutput();
current->pushDepth(0);
current->setActiveOutput(&ss);
right->getAsTyped()->traverse(this);
current->setActiveOutput(oldOut);
current->popDepth();
sym->setInitializer(ss.str());
}
return true;
}
int SSLContext::setCertificateFile( const char * pFile, int type, int chained )
{
if ( !pFile )
return 0;
::stat( pFile, &m_stCert );
if ( init( m_iMethod ) )
return 0;
// m_sCertfile.setStr( pFile );
if ( chained )
return SSL_CTX_use_certificate_chain_file( m_pCtx, pFile );
else
return SSL_CTX_use_certificate_file( m_pCtx, pFile,
translateType( type ) );
}
void TGlslOutputTraverser::traverseConstantUnion( TIntermConstant *node, TIntermTraverser *it )
{
TGlslOutputTraverser* goit = static_cast<TGlslOutputTraverser*>(it);
GlslFunction *current = goit->current;
std::stringstream& out = current->getActiveOutput();
EGlslSymbolType type = translateType( node->getTypePointer());
GlslStruct *str = 0;
current->beginStatement();
if (type == EgstStruct)
{
str = goit->createStructFromType( node->getTypePointer());
}
writeConstantConstructor (out, type, goit->m_UsePrecision?node->getPrecision():EbpUndefined, node, str);
}
void TGlslOutputTraverser::traverseParameterSymbol(TIntermSymbol *node, TIntermTraverser *it)
{
TGlslOutputTraverser* goit = static_cast<TGlslOutputTraverser*>(it);
GlslFunction *current = goit->current;
int array = node->getTypePointer()->isArray() ? node->getTypePointer()->getArraySize() : 0;
const char* semantic = "";
if (node->getInfo())
semantic = node->getInfo()->getSemantic().c_str();
GlslSymbol * sym = new GlslSymbol( node->getSymbol().c_str(), semantic, node->getId(),
translateType(node->getTypePointer()), goit->m_UsePrecision?node->getPrecision():EbpUndefined, translateQualifier(node->getQualifier()), array);
current->addParameter(sym);
if (sym->getType() == EgstStruct)
{
GlslStruct *s = goit->createStructFromType( node->getTypePointer());
sym->setStruct(s);
}
}
int SslContext::setCertificateFile(const char *pFile, int type,
int chained)
{
int ret;
if (!pFile)
return 0;
::stat(pFile, &m_stCert);
if (init(m_iMethod))
return 0;
if (chained)
return SSL_CTX_use_certificate_chain_file(m_pCtx, pFile);
else
{
ret = loadCertFile(m_pCtx, pFile, type);
if (ret == -1)
return SSL_CTX_use_certificate_file(m_pCtx, pFile,
translateType(type));
return ret;
}
}
void TGlslOutputTraverser::traverseSymbol(TIntermSymbol *node, TIntermTraverser *it)
{
TGlslOutputTraverser* goit = static_cast<TGlslOutputTraverser*>(it);
GlslFunction *current = goit->current;
std::stringstream& out = current->getActiveOutput();
current->beginStatement();
if ( ! current->hasSymbol( node->getId()))
{
//check to see if it is a global we can share
if ( goit->global->hasSymbol( node->getId()))
{
current->addSymbol( &goit->global->getSymbol( node->getId()));
}
else
{
int array = node->getTypePointer()->isArray() ? node->getTypePointer()->getArraySize() : 0;
const char* semantic = "";
if (node->getInfo())
semantic = node->getInfo()->getSemantic().c_str();
GlslSymbol * sym = new GlslSymbol( node->getSymbol().c_str(), semantic, node->getId(),
translateType(node->getTypePointer()), goit->m_UsePrecision?node->getPrecision():EbpUndefined, translateQualifier(node->getQualifier()), array);
sym->setIsGlobal(node->isGlobal());
current->addSymbol(sym);
if (sym->getType() == EgstStruct)
{
GlslStruct *s = goit->createStructFromType( node->getTypePointer());
sym->setStruct(s);
}
}
}
// If we're at the global scope, emit the non-mutable names of uniforms.
bool globalScope = current == goit->global;
out << current->getSymbol(node->getId()).getName(!globalScope);
}
void LogManager::printLog() {
for (int index = head; index < tail; index++) {
LogRecord rec = log[index];
cout << endl;
cout << "LSN: " << rec.LSN << endl;
cout << "Transaction: " << rec.transID << endl;
cout << "Type: " << translateType(rec.type) << endl;
cout << "Previous: " << rec.prevLSN << endl;
if (rec.type == 2) {
char* oldData = rec.oldData;
cout << "Old data: ";
for (int i = 0; i < 16; i++) { cout << oldData[i]; }
cout << endl;
char* newData = rec.newData;
cout << "New data: ";
for (int i = 0; i < 16; i++) { cout << newData[i]; }
cout << endl;
}
}
}
static WORD subtractType(WORD dwType, std::wstring sType) {
return dwType & (!translateType(sType));
}
static WORD appendType(WORD dwType, std::wstring sType) {
return dwType | translateType(sType);
}
bool TGlslOutputTraverser::traverseDeclaration(bool preVisit, TIntermDeclaration* decl, TIntermTraverser* it) {
TGlslOutputTraverser* goit = static_cast<TGlslOutputTraverser*>(it);
GlslFunction *current = goit->current;
std::stringstream& out = current->getActiveOutput();
EGlslSymbolType symbol_type = translateType(decl->getTypePointer());
TType& type = *decl->getTypePointer();
bool emit_osx10_6_arrays = goit->m_EmitSnowLeopardCompatibleArrayInitializers
&& decl->containsArrayInitialization();
if (emit_osx10_6_arrays) {
assert(decl->isSingleInitialization() && "Emission of multiple in-line array declarations isn't supported when running in OS X 10.6 compatible mode.");
current->indent(out);
out << "#if defined(OSX_SNOW_LEOPARD)" << std::endl;
current->increaseDepth();
TQualifier q = type.getQualifier();
if (q == EvqConst)
q = EvqTemporary;
current->beginStatement();
if (q != EvqTemporary && q != EvqGlobal)
out << type.getQualifierString() << " ";
TIntermBinary* assign = decl->getDeclaration()->getAsBinaryNode();
TIntermSymbol* sym = assign->getLeft()->getAsSymbolNode();
TIntermSequence& init = assign->getRight()->getAsAggregate()->getSequence();
writeType(out, symbol_type, NULL, goit->m_UsePrecision ? decl->getPrecision() : EbpUndefined);
out << "[" << type.getArraySize() << "] " << sym->getSymbol();
current->endStatement();
unsigned n_vals = init.size();
for (unsigned i = 0; i != n_vals; ++i) {
current->beginStatement();
sym->traverse(goit);
out << "[" << i << "]" << " = ";
init[i]->traverse(goit);
current->endStatement();
}
current->decreaseDepth();
current->indent(out);
out << "#else" << std::endl;
current->increaseDepth();
}
current->beginStatement();
if (type.getQualifier() != EvqTemporary && type.getQualifier() != EvqGlobal)
out << type.getQualifierString() << " ";
if (type.getBasicType() == EbtStruct)
out << type.getTypeName();
else
writeType(out, symbol_type, NULL, goit->m_UsePrecision ? decl->getPrecision() : EbpUndefined);
if (type.isArray())
out << "[" << type.getArraySize() << "]";
out << " ";
decl->getDeclaration()->traverse(goit);
current->endStatement();
if (emit_osx10_6_arrays) {
current->decreaseDepth();
current->indent(out);
out << "#endif" << std::endl;
}
return false;
}
GlslStruct *TGlslOutputTraverser::createStructFromType (TType *type)
{
GlslStruct *s = 0;
std::string structName = type->getTypeName().c_str();
//check for anonymous structures
if (structName.size() == 0)
{
std::stringstream temp;
TTypeList &tList = *type->getStruct();
//build a mangled name that is hopefully mangled enough to prevent collisions
temp << "anonStruct";
for (TTypeList::iterator it = tList.begin(); it != tList.end(); it++)
{
TString typeString;
it->type->buildMangledName(typeString);
temp << "_" << typeString.c_str();
}
structName = temp.str();
}
//try to find the struct name
if ( structMap.find(structName) == structMap.end() )
{
//This is a new structure, build a type for it
TTypeList &tList = *type->getStruct();
s = new GlslStruct(structName, type->getLine());
for (TTypeList::iterator it = tList.begin(); it != tList.end(); it++)
{
GlslStruct::member m;
m.name = it->type->getFieldName().c_str();
if (it->type->hasSemantic())
m.semantic = it->type->getSemantic().c_str();
if (it->type->getBasicType() == EbtStruct)
{
m.structType = createStructFromType(it->type);
}
else
m.structType = NULL;
m.type = translateType( it->type);
m.arraySize = it->type->isArray() ? it->type->getArraySize() : 0;
m.precision = m_UsePrecision ? it->type->getPrecision() : EbpUndefined;
s->addMember(m);
}
//add it to the list
structMap[structName] = s;
structList.push_back(s);
}
else
{
s = structMap[structName];
}
return s;
}
bool TGlslOutputTraverser::traverseAggregate( bool preVisit, TIntermAggregate *node, TIntermTraverser *it )
{
TGlslOutputTraverser* goit = static_cast<TGlslOutputTraverser*>(it);
GlslFunction *current = goit->current;
std::stringstream& out = current->getActiveOutput();
int argCount = (int) node->getSequence().size();
if (node->getOp() == EOpNull)
{
goit->infoSink.info << "node is still EOpNull!\n";
return true;
}
switch (node->getOp())
{
case EOpSequence:
if (goit->generatingCode)
{
goit->outputLineDirective (node->getLine());
TIntermSequence::iterator sit;
TIntermSequence &sequence = node->getSequence();
for (sit = sequence.begin(); sit != sequence.end(); ++sit)
{
goit->outputLineDirective((*sit)->getLine());
(*sit)->traverse(it);
//out << ";\n";
current->endStatement();
}
}
else
{
TIntermSequence::iterator sit;
TIntermSequence &sequence = node->getSequence();
for (sit = sequence.begin(); sit != sequence.end(); ++sit)
{
(*sit)->traverse(it);
}
}
return false;
case EOpFunction:
{
GlslFunction *func = new GlslFunction( node->getPlainName().c_str(), node->getName().c_str(),
translateType(node->getTypePointer()), goit->m_UsePrecision?node->getPrecision():EbpUndefined,
node->getSemantic().c_str(), node->getLine());
if (func->getReturnType() == EgstStruct)
{
GlslStruct *s = goit->createStructFromType( node->getTypePointer());
func->setStruct(s);
}
goit->functionList.push_back( func);
goit->current = func;
goit->current->beginBlock( false);
TIntermSequence::iterator sit;
TIntermSequence &sequence = node->getSequence();
for (sit = sequence.begin(); sit != sequence.end(); ++sit)
{
(*sit)->traverse(it);
}
goit->current->endBlock();
goit->current = goit->global;
return false;
}
case EOpParameters:
it->visitSymbol = traverseParameterSymbol;
{
TIntermSequence::iterator sit;
TIntermSequence &sequence = node->getSequence();
for (sit = sequence.begin(); sit != sequence.end(); ++sit)
(*sit)->traverse(it);
}
it->visitSymbol = traverseSymbol;
return false;
case EOpConstructFloat: writeFuncCall( "float", node, goit); return false;
case EOpConstructVec2: writeFuncCall( "vec2", node, goit); return false;
case EOpConstructVec3: writeFuncCall( "vec3", node, goit); return false;
case EOpConstructVec4: writeFuncCall( "vec4", node, goit); return false;
case EOpConstructBool: writeFuncCall( "bool", node, goit); return false;
case EOpConstructBVec2: writeFuncCall( "bvec2", node, goit); return false;
case EOpConstructBVec3: writeFuncCall( "bvec3", node, goit); return false;
case EOpConstructBVec4: writeFuncCall( "bvec4", node, goit); return false;
case EOpConstructInt: writeFuncCall( "int", node, goit); return false;
case EOpConstructIVec2: writeFuncCall( "ivec2", node, goit); return false;
case EOpConstructIVec3: writeFuncCall( "ivec3", node, goit); return false;
case EOpConstructIVec4: writeFuncCall( "ivec4", node, goit); return false;
case EOpConstructMat2FromMat:
case EOpConstructMat2: writeFuncCall( "mat2", node, goit); return false;
case EOpConstructMat3FromMat:
case EOpConstructMat3: writeFuncCall( "mat3", node, goit); return false;
case EOpConstructMat4: writeFuncCall( "mat4", node, goit); return false;
case EOpConstructStruct: writeFuncCall( node->getTypePointer()->getTypeName(), node, goit); return false;
case EOpConstructArray: writeFuncCall( buildArrayConstructorString(*node->getTypePointer()), node, goit); return false;
case EOpComma:
{
TIntermSequence::iterator sit;
TIntermSequence &sequence = node->getSequence();
for (sit = sequence.begin(); sit != sequence.end(); ++sit)
{
(*sit)->traverse(it);
if ( sit+1 != sequence.end())
out << ", ";
}
}
return false;
case EOpFunctionCall:
current->addCalledFunction(node->getName().c_str());
writeFuncCall( node->getPlainName(), node, goit);
return false;
case EOpLessThan: writeFuncCall( "lessThan", node, goit); return false;
case EOpGreaterThan: writeFuncCall( "greaterThan", node, goit); return false;
case EOpLessThanEqual: writeFuncCall( "lessThanEqual", node, goit); return false;
case EOpGreaterThanEqual: writeFuncCall( "greaterThanEqual", node, goit); return false;
case EOpVectorEqual: writeFuncCall( "equal", node, goit); return false;
case EOpVectorNotEqual: writeFuncCall( "notEqual", node, goit); return false;
case EOpMod: writeFuncCall( "mod", node, goit, true); return false;
case EOpPow: writeFuncCall( "pow", node, goit, true); return false;
case EOpAtan2: writeFuncCall( "atan", node, goit, true); return false;
case EOpMin: writeFuncCall( "min", node, goit, true); return false;
case EOpMax: writeFuncCall( "max", node, goit, true); return false;
case EOpClamp: writeFuncCall( "clamp", node, goit, true); return false;
case EOpMix: writeFuncCall( "mix", node, goit, true); return false;
case EOpStep: writeFuncCall( "step", node, goit, true); return false;
case EOpSmoothStep: writeFuncCall( "smoothstep", node, goit, true); return false;
case EOpDistance: writeFuncCall( "distance", node, goit); return false;
case EOpDot: writeFuncCall( "dot", node, goit); return false;
case EOpCross: writeFuncCall( "cross", node, goit); return false;
case EOpFaceForward: writeFuncCall( "faceforward", node, goit); return false;
case EOpReflect: writeFuncCall( "reflect", node, goit); return false;
case EOpRefract: writeFuncCall( "refract", node, goit); return false;
case EOpMul:
{
//This should always have two arguments
assert(node->getSequence().size() == 2);
current->beginStatement();
out << '(';
node->getSequence()[0]->traverse(goit);
out << " * ";
node->getSequence()[1]->traverse(goit);
out << ')';
return false;
}
//HLSL texture functions
case EOpTex1D:
if (argCount == 2)
writeTex( "texture1D", node, goit);
else
{
current->addLibFunction(EOpTex1DGrad);
writeTex( "xll_tex1Dgrad", node, goit);
}
return false;
case EOpTex1DProj:
writeTex( "texture1DProj", node, goit);
return false;
case EOpTex1DLod:
current->addLibFunction(EOpTex1DLod);
writeTex( "xll_tex1Dlod", node, goit);
return false;
case EOpTex1DBias:
current->addLibFunction(EOpTex1DBias);
writeTex( "xll_tex1Dbias", node, goit);
return false;
case EOpTex1DGrad:
current->addLibFunction(EOpTex1DGrad);
writeTex( "xll_tex1Dgrad", node, goit);
return false;
case EOpTex2D:
if (argCount == 2)
writeTex( "texture2D", node, goit);
else
{
current->addLibFunction(EOpTex2DGrad);
writeTex( "xll_tex2Dgrad", node, goit);
}
return false;
case EOpTex2DProj:
writeTex( "texture2DProj", node, goit);
return false;
case EOpTex2DLod:
current->addLibFunction(EOpTex2DLod);
writeTex( "xll_tex2Dlod", node, goit);
return false;
case EOpTex2DBias:
current->addLibFunction(EOpTex2DBias);
writeTex( "xll_tex2Dbias", node, goit);
return false;
case EOpTex2DGrad:
current->addLibFunction(EOpTex2DGrad);
writeTex( "xll_tex2Dgrad", node, goit);
return false;
case EOpTex3D:
if (argCount == 2)
writeTex( "texture3D", node, goit);
else
{
current->addLibFunction(EOpTex3DGrad);
writeTex( "xll_tex3Dgrad", node, goit);
}
return false;
case EOpTex3DProj:
writeTex( "texture3DProj", node, goit);
return false;
case EOpTex3DLod:
current->addLibFunction(EOpTex3DLod);
writeTex( "xll_tex3Dlod", node, goit);
return false;
case EOpTex3DBias:
current->addLibFunction(EOpTex3DBias);
writeTex( "xll_tex3Dbias", node, goit);
return false;
case EOpTex3DGrad:
current->addLibFunction(EOpTex3DGrad);
writeTex( "xll_tex3Dgrad", node, goit);
return false;
case EOpTexCube:
if (argCount == 2)
writeTex( "textureCube", node, goit);
else
{
current->addLibFunction(EOpTexCubeGrad);
writeTex( "xll_texCUBEgrad", node, goit);
}
return false;
case EOpTexCubeProj:
writeTex( "textureCubeProj", node, goit);
return false;
case EOpTexCubeLod:
current->addLibFunction(EOpTexCubeLod);
writeTex( "xll_texCUBElod", node, goit);
return false;
case EOpTexCubeBias:
current->addLibFunction(EOpTexCubeBias);
writeTex( "xll_texCUBEbias", node, goit);
return false;
case EOpTexCubeGrad:
current->addLibFunction(EOpTexCubeGrad);
writeTex( "xll_texCUBEgrad", node, goit);
return false;
case EOpTexRect:
writeTex( "texture2DRect", node, goit);
return false;
case EOpTexRectProj:
writeTex( "texture2DRectProj", node, goit);
return false;
case EOpModf:
current->addLibFunction(EOpModf);
writeFuncCall( "xll_modf", node, goit);
break;
case EOpLdexp:
current->addLibFunction(EOpLdexp);
writeFuncCall( "xll_ldexp", node, goit);
break;
case EOpSinCos:
current->addLibFunction(EOpSinCos);
writeFuncCall ( "xll_sincos", node, goit);
break;
case EOpLit:
current->addLibFunction(EOpLit);
writeFuncCall( "xll_lit", node, goit);
break;
default: goit->infoSink.info << "Bad aggregation op\n";
}
return false;
}
