#include #include #include "clang/AST/ASTConsumer.h" #include "clang/AST/RecursiveASTVisitor.h" #include "clang/Frontend/CompilerInstance.h" #include "clang/Frontend/FrontendAction.h" #include "clang/Frontend/Utils.h" #include "clang/Tooling/Tooling.h" #include "clang/Lex/Preprocessor.h" #include "clang/Sema/Sema.h" #include "clang/AST/RecordLayout.h" #include "clang/AST/DeclCXX.h" #include "clang/AST/TypeLoc.h" #include "clang/Basic/Version.h" #include "llvm/Support/Format.h" #include "llvm/Support/CommandLine.h" using namespace std::literals; static unsigned AthenaError = 0; #define ATHENA_DNA_BASETYPE "struct athena::io::DNA" #ifndef INSTALL_PREFIX #define INSTALL_PREFIX /usr/local #endif #define XSTR(s) STR(s) #define STR(s) #s static llvm::cl::opt Help("h", llvm::cl::desc("Alias for -help"), llvm::cl::Hidden); static llvm::cl::opt Verbose("v", llvm::cl::desc("verbose mode")); static llvm::cl::OptionCategory ATDNAFormatCategory("atdna options"); static llvm::cl::opt OutputFilename("o", llvm::cl::desc("Specify output filename"), llvm::cl::value_desc("filename"), llvm::cl::Prefix); static llvm::cl::opt FExceptions("fexceptions", llvm::cl::desc("Enable C++ Exceptions")); static llvm::cl::opt FMSCompat("fms-compatibility", llvm::cl::desc("Enable MS header compatibility")); static llvm::cl::opt FMSCompatVersion("fms-compatibility-version", llvm::cl::desc("Specify MS compatibility version (18.00 for VS2013, 19.00 for VS2015)")); static llvm::cl::list InputFilenames(llvm::cl::Positional, llvm::cl::desc(""), llvm::cl::ZeroOrMore); static llvm::cl::list IncludeSearchPaths("I", llvm::cl::desc("Header search path"), llvm::cl::Prefix); static llvm::cl::list SystemIncludeSearchPaths("isystem", llvm::cl::desc("System Header search path")); static llvm::cl::opt StandardCXXLib("stdlib", llvm::cl::desc("Standard C++ library")); static llvm::cl::opt DepFile("MD", llvm::cl::desc("Make Dependency file")); static llvm::cl::opt DepFileOut("MF", llvm::cl::desc("Dependency file out path")); static llvm::cl::list DepFileTargets("MT", llvm::cl::desc("Dependency file targets")); static llvm::cl::list SystemIncRoot("isysroot", llvm::cl::desc("System include root")); static llvm::cl::list PreprocessorDefines("D", llvm::cl::desc("Preprocessor define"), llvm::cl::Prefix); static llvm::cl::opt EmitIncludes("emit-includes", llvm::cl::desc("Emit DNA for included files (not just main file)")); /* LLVM 3.7 changed the stream type */ #if LLVM_VERSION_MAJOR > 3 || (LLVM_VERSION_MAJOR == 3 && LLVM_VERSION_MINOR >= 7) using StreamOut = llvm::raw_pwrite_stream; #else using StreamOut = llvm::raw_fd_ostream; #endif class ATDNAEmitVisitor : public clang::RecursiveASTVisitor { clang::ASTContext& context; StreamOut& fileOut; bool isDNARecord(const clang::CXXRecordDecl* record, std::string& baseDNA) { for (const clang::CXXBaseSpecifier& base : record->bases()) { const clang::QualType qtp = base.getType().getCanonicalType(); if (!qtp.getAsString().compare(0, sizeof(ATHENA_DNA_BASETYPE)-1, ATHENA_DNA_BASETYPE)) return true; } for (const clang::CXXBaseSpecifier& base : record->bases()) { clang::QualType qtp = base.getType().getCanonicalType(); const clang::Type* tp = qtp.getTypePtrOrNull(); if (tp) { const clang::CXXRecordDecl* rDecl = tp->getAsCXXRecordDecl(); if (rDecl) { if (isDNARecord(rDecl, baseDNA)) { bool hasRead = false; bool hasWrite = false; for (const clang::CXXMethodDecl* method : rDecl->methods()) { std::string compName = method->getDeclName().getAsString(); if (!compName.compare("read")) hasRead = true; else if (!compName.compare("write")) hasWrite = true; } if (hasRead && hasWrite) baseDNA = rDecl->getQualifiedNameAsString(); return true; } } } } return false; } int64_t GetSizeValue(const clang::Type* theType, unsigned width) { if (theType->isEnumeralType()) { clang::EnumType* eType = (clang::EnumType*)theType; clang::EnumDecl* eDecl = eType->getDecl(); theType = eDecl->getIntegerType().getCanonicalType().getTypePtr(); const clang::BuiltinType* bType = (clang::BuiltinType*)theType; if (bType->isBooleanType()) { return 1; } else if (bType->isUnsignedInteger() || bType->isSignedInteger()) { return width / 8; } } else if (theType->isBuiltinType()) { const clang::BuiltinType* bType = (clang::BuiltinType*)theType; if (bType->isBooleanType()) { return 1; } else if (bType->isUnsignedInteger() || bType->isSignedInteger() || bType->isFloatingPoint()) { return width / 8; } } else if (theType->isRecordType()) { const clang::CXXRecordDecl* rDecl = theType->getAsCXXRecordDecl(); for (const clang::FieldDecl* field : rDecl->fields()) { if (!field->getName().compare("clangVec")) { const clang::VectorType* vType = (clang::VectorType*)field->getType().getTypePtr(); if (vType->isVectorType()) { const clang::BuiltinType* eType = (clang::BuiltinType*)vType->getElementType().getTypePtr(); const uint64_t width = context.getTypeInfo(eType).Width; if (!eType->isBuiltinType() || !eType->isFloatingPoint() || (width != 32 && width != 64)) continue; if (vType->getNumElements() == 2) { return width / 8 * 2; } else if (vType->getNumElements() == 3) { return width / 8 * 3; } else if (vType->getNumElements() == 4) { return width / 8 * 4; } } } } } return 0; } #if 0 std::string GetOpString(const clang::Type* theType, unsigned width, const std::string& fieldName, bool writerPass, const std::string& funcPrefix, bool& isDNATypeOut) { isDNATypeOut = false; if (writerPass) { if (theType->isEnumeralType()) { clang::EnumType* eType = (clang::EnumType*)theType; clang::EnumDecl* eDecl = eType->getDecl(); theType = eDecl->getIntegerType().getCanonicalType().getTypePtr(); const clang::BuiltinType* bType = (clang::BuiltinType*)theType; if (bType->isBooleanType()) { return ATHENA_DNA_WRITER ".writeBool(bool(" + fieldName + "));"; } else if (bType->isUnsignedInteger()) { if (width == 8) return ATHENA_DNA_WRITER ".writeUByte(atUint8(" + fieldName + "));"; else if (width == 16) return ATHENA_DNA_WRITER ".writeUint16" + funcPrefix + "(atUint16(" + fieldName + "));"; else if (width == 32) return ATHENA_DNA_WRITER ".writeUint32" + funcPrefix + "(atUint32(" + fieldName + "));"; else if (width == 64) return ATHENA_DNA_WRITER ".writeUint64" + funcPrefix + "(atUint64(" + fieldName + "));"; } else if (bType->isSignedInteger()) { if (width == 8) return ATHENA_DNA_WRITER ".writeByte(atInt8(" + fieldName + "));"; else if (width == 16) return ATHENA_DNA_WRITER ".writeInt16" + funcPrefix + "(atInt16(" + fieldName + "));"; else if (width == 32) return ATHENA_DNA_WRITER ".writeInt32" + funcPrefix + "(atInt32(" + fieldName + "));"; else if (width == 64) return ATHENA_DNA_WRITER ".writeInt64" + funcPrefix + "(atInt64(" + fieldName + "));"; } } else if (theType->isBuiltinType()) { const clang::BuiltinType* bType = (clang::BuiltinType*)theType; if (bType->isBooleanType()) { return ATHENA_DNA_WRITER ".writeBool(" + fieldName + ");"; } else if (bType->isUnsignedInteger()) { if (width == 8) return ATHENA_DNA_WRITER ".writeUByte(" + fieldName + ");"; else if (width == 16) return ATHENA_DNA_WRITER ".writeUint16" + funcPrefix + "(" + fieldName + ");"; else if (width == 32) return ATHENA_DNA_WRITER ".writeUint32" + funcPrefix + "(" + fieldName + ");"; else if (width == 64) return ATHENA_DNA_WRITER ".writeUint64" + funcPrefix + "(" + fieldName + ");"; } else if (bType->isSignedInteger()) { if (width == 8) return ATHENA_DNA_WRITER ".writeByte(" + fieldName + ");"; else if (width == 16) return ATHENA_DNA_WRITER ".writeInt16" + funcPrefix + "(" + fieldName + ");"; else if (width == 32) return ATHENA_DNA_WRITER ".writeInt32" + funcPrefix + "(" + fieldName + ");"; else if (width == 64) return ATHENA_DNA_WRITER ".writeInt64" + funcPrefix + "(" + fieldName + ");"; } else if (bType->isFloatingPoint()) { if (width == 32) return ATHENA_DNA_WRITER ".writeFloat" + funcPrefix + "(" + fieldName + ");"; else if (width == 64) return ATHENA_DNA_WRITER ".writeDouble" + funcPrefix + "(" + fieldName + ");"; } } else if (theType->isRecordType()) { const clang::CXXRecordDecl* rDecl = theType->getAsCXXRecordDecl(); for (const clang::FieldDecl* field : rDecl->fields()) { if (!field->getName().compare("clangVec")) { const clang::VectorType* vType = (clang::VectorType*)field->getType().getTypePtr(); if (vType->isVectorType()) { const clang::BuiltinType* eType = (clang::BuiltinType*)vType->getElementType().getTypePtr(); const uint64_t width = context.getTypeInfo(eType).Width; if (!eType->isBuiltinType() || !eType->isFloatingPoint() || (width != 32 && width != 64)) continue; if (vType->getNumElements() == 2) { if (width == 32) return ATHENA_DNA_WRITER ".writeVec2f" + funcPrefix + "(" + fieldName + ");"; else if (width == 64) return ATHENA_DNA_WRITER ".writeVec2d" + funcPrefix + "(" + fieldName + ");"; } else if (vType->getNumElements() == 3) { if (width == 32) return ATHENA_DNA_WRITER ".writeVec3f" + funcPrefix + "(" + fieldName + ");"; else if (width == 64) return ATHENA_DNA_WRITER ".writeVec3d" + funcPrefix + "(" + fieldName + ");"; } else if (vType->getNumElements() == 4) { if (width == 32) return ATHENA_DNA_WRITER ".writeVec4f" + funcPrefix + "(" + fieldName + ");"; else if (width == 64) return ATHENA_DNA_WRITER ".writeVec4d" + funcPrefix + "(" + fieldName + ");"; } } } } std::string baseDNA; bool isYAML = false; if (isDNARecord(rDecl, baseDNA, isYAML)) { isDNATypeOut = true; return "write(" ATHENA_DNA_WRITER ");"; } } } else { if (theType->isEnumeralType()) { clang::EnumType* eType = (clang::EnumType*)theType; clang::EnumDecl* eDecl = eType->getDecl(); theType = eDecl->getIntegerType().getCanonicalType().getTypePtr(); std::string qName = eDecl->getQualifiedNameAsString(); const clang::BuiltinType* bType = (clang::BuiltinType*)theType; if (bType->isBooleanType()) { return qName + "(" ATHENA_DNA_READER ".readBool())"; } else if (bType->isUnsignedInteger()) { if (width == 8) return qName + "(" ATHENA_DNA_READER ".readUByte())"; else if (width == 16) return qName + "(" ATHENA_DNA_READER ".readUint16" + funcPrefix + "())"; else if (width == 32) return qName + "(" ATHENA_DNA_READER ".readUint32" + funcPrefix + "())"; else if (width == 64) return qName + "(" ATHENA_DNA_READER ".readUint64" + funcPrefix + "())"; } else if (bType->isSignedInteger()) { if (width == 8) return qName + "(" ATHENA_DNA_READER ".readByte()"; else if (width == 16) return qName + "(" ATHENA_DNA_READER ".readInt16" + funcPrefix + "())"; else if (width == 32) return qName + "(" ATHENA_DNA_READER ".readInt32" + funcPrefix + "())"; else if (width == 64) return qName + "(" ATHENA_DNA_READER ".readInt64" + funcPrefix + "())"; } } else if (theType->isBuiltinType()) { const clang::BuiltinType* bType = (clang::BuiltinType*)theType; if (bType->isBooleanType()) { return ATHENA_DNA_READER ".readBool()"; } else if (bType->isUnsignedInteger()) { if (width == 8) return ATHENA_DNA_READER ".readUByte()"; else if (width == 16) return ATHENA_DNA_READER ".readUint16" + funcPrefix + "()"; else if (width == 32) return ATHENA_DNA_READER ".readUint32" + funcPrefix + "()"; else if (width == 64) return ATHENA_DNA_READER ".readUint64" + funcPrefix + "()"; } else if (bType->isSignedInteger()) { if (width == 8) return ATHENA_DNA_READER ".readByte()"; else if (width == 16) return ATHENA_DNA_READER ".readInt16" + funcPrefix + "()"; else if (width == 32) return ATHENA_DNA_READER ".readInt32" + funcPrefix + "()"; else if (width == 64) return ATHENA_DNA_READER ".readInt64" + funcPrefix + "()"; } else if (bType->isFloatingPoint()) { if (width == 32) return ATHENA_DNA_READER ".readFloat" + funcPrefix + "()"; else if (width == 64) return ATHENA_DNA_READER ".readDouble" + funcPrefix + "()"; } } else if (theType->isRecordType()) { const clang::CXXRecordDecl* rDecl = theType->getAsCXXRecordDecl(); for (const clang::FieldDecl* field : rDecl->fields()) { if (!field->getName().compare("clangVec")) { const clang::VectorType* vType = (clang::VectorType*)field->getType().getTypePtr(); if (vType->isVectorType()) { const clang::BuiltinType* eType = (clang::BuiltinType*)vType->getElementType().getTypePtr(); const uint64_t width = context.getTypeInfo(eType).Width; if (!eType->isBuiltinType() || !eType->isFloatingPoint() || (width != 32 && width != 64)) continue; if (vType->getNumElements() == 2) { if (width == 32) return ATHENA_DNA_READER ".readVec2f" + funcPrefix + "()"; else if (width == 64) return ATHENA_DNA_READER ".readVec2d" + funcPrefix + "()"; } else if (vType->getNumElements() == 3) { if (width == 32) return ATHENA_DNA_READER ".readVec3f" + funcPrefix + "()"; else if (width == 64) return ATHENA_DNA_READER ".readVec3d" + funcPrefix + "()"; } else if (vType->getNumElements() == 4) { if (width == 32) return ATHENA_DNA_READER ".readVec4f" + funcPrefix + "()"; else if (width == 64) return ATHENA_DNA_READER ".readVec4d" + funcPrefix + "()"; } } } } std::string baseDNA; bool isYAML = false; if (isDNARecord(rDecl, baseDNA, isYAML)) { isDNATypeOut = true; return "read(" ATHENA_DNA_READER ");"; } } } return std::string(); } std::string GetYAMLString(const clang::Type* theType, unsigned width, const std::string& fieldName, const std::string& bareFieldName, bool writerPass, bool& isDNATypeOut) { isDNATypeOut = false; if (writerPass) { if (theType->isEnumeralType()) { clang::EnumType* eType = (clang::EnumType*)theType; clang::EnumDecl* eDecl = eType->getDecl(); theType = eDecl->getIntegerType().getCanonicalType().getTypePtr(); const clang::BuiltinType* bType = (clang::BuiltinType*)theType; if (bType->isBooleanType()) { return ATHENA_YAML_WRITER ".writeBool(\"" + bareFieldName + "\", bool(" + fieldName + "));"; } else if (bType->isUnsignedInteger()) { if (width == 8) return ATHENA_YAML_WRITER ".writeUByte(\"" + bareFieldName + "\", atUint8(" + fieldName + "));"; else if (width == 16) return ATHENA_YAML_WRITER ".writeUint16(\"" + bareFieldName + "\", atUint16(" + fieldName + "));"; else if (width == 32) return ATHENA_YAML_WRITER ".writeUint32(\"" + bareFieldName + "\", atUint32(" + fieldName + "));"; else if (width == 64) return ATHENA_YAML_WRITER ".writeUint64(\"" + bareFieldName + "\", atUint64(" + fieldName + "));"; } else if (bType->isSignedInteger()) { if (width == 8) return ATHENA_YAML_WRITER ".writeByte(\"" + bareFieldName + "\", atInt8(" + fieldName + "));"; else if (width == 16) return ATHENA_YAML_WRITER ".writeInt16(\"" + bareFieldName + "\", atInt16(" + fieldName + "));"; else if (width == 32) return ATHENA_YAML_WRITER ".writeInt32(\"" + bareFieldName + "\", atInt32(" + fieldName + "));"; else if (width == 64) return ATHENA_YAML_WRITER ".writeInt64(\"" + bareFieldName + "\", atInt64(" + fieldName + "));"; } } else if (theType->isBuiltinType()) { const clang::BuiltinType* bType = (clang::BuiltinType*)theType; if (bType->isBooleanType()) { return ATHENA_YAML_WRITER ".writeBool(\"" + bareFieldName + "\", " + fieldName + ");"; } else if (bType->isUnsignedInteger()) { if (width == 8) return ATHENA_YAML_WRITER ".writeUByte(\"" + bareFieldName + "\", " + fieldName + ");"; else if (width == 16) return ATHENA_YAML_WRITER ".writeUint16(\"" + bareFieldName + "\", " + fieldName + ");"; else if (width == 32) return ATHENA_YAML_WRITER ".writeUint32(\"" + bareFieldName + "\", " + fieldName + ");"; else if (width == 64) return ATHENA_YAML_WRITER ".writeUint64(\"" + bareFieldName + "\", " + fieldName + ");"; } else if (bType->isSignedInteger()) { if (width == 8) return ATHENA_YAML_WRITER ".writeByte(\"" + bareFieldName + "\", " + fieldName + ");"; else if (width == 16) return ATHENA_YAML_WRITER ".writeInt16(\"" + bareFieldName + "\", " + fieldName + ");"; else if (width == 32) return ATHENA_YAML_WRITER ".writeInt32(\"" + bareFieldName + "\", " + fieldName + ");"; else if (width == 64) return ATHENA_YAML_WRITER ".writeInt64(\"" + bareFieldName + "\", " + fieldName + ");"; } else if (bType->isFloatingPoint()) { if (width == 32) return ATHENA_YAML_WRITER ".writeFloat(\"" + bareFieldName + "\", " + fieldName + ");"; else if (width == 64) return ATHENA_YAML_WRITER ".writeDouble(\"" + bareFieldName + "\", " + fieldName + ");"; } } else if (theType->isRecordType()) { const clang::CXXRecordDecl* rDecl = theType->getAsCXXRecordDecl(); for (const clang::FieldDecl* field : rDecl->fields()) { if (!field->getName().compare("clangVec")) { const clang::VectorType* vType = (clang::VectorType*)field->getType().getTypePtr(); if (vType->isVectorType()) { const clang::BuiltinType* eType = (clang::BuiltinType*)vType->getElementType().getTypePtr(); const uint64_t width = context.getTypeInfo(eType).Width; if (!eType->isBuiltinType() || !eType->isFloatingPoint() || (width != 32 && width != 64)) continue; if (vType->getNumElements() == 2) { if (width == 32) return ATHENA_YAML_WRITER ".writeVec2f(\"" + bareFieldName + "\", " + fieldName + ");"; else if (width == 64) return ATHENA_YAML_WRITER ".writeVec2d(\"" + bareFieldName + "\", " + fieldName + ");"; } else if (vType->getNumElements() == 3) { if (width == 32) return ATHENA_YAML_WRITER ".writeVec3f(\"" + bareFieldName + "\", " + fieldName + ");"; else if (width == 64) return ATHENA_YAML_WRITER ".writeVec3d(\"" + bareFieldName + "\", " + fieldName + ");"; } else if (vType->getNumElements() == 4) { if (width == 32) return ATHENA_YAML_WRITER ".writeVec4f(\"" + bareFieldName + "\", " + fieldName + ");"; else if (width == 64) return ATHENA_YAML_WRITER ".writeVec4d(\"" + bareFieldName + "\", " + fieldName + ");"; } } } } std::string baseDNA; bool isYAML = false; if (isDNARecord(rDecl, baseDNA, isYAML)) { isDNATypeOut = true; return "write(" ATHENA_YAML_WRITER ");"; } } } else { if (theType->isEnumeralType()) { clang::EnumType* eType = (clang::EnumType*)theType; clang::EnumDecl* eDecl = eType->getDecl(); theType = eDecl->getIntegerType().getCanonicalType().getTypePtr(); std::string qName = eDecl->getQualifiedNameAsString(); const clang::BuiltinType* bType = (clang::BuiltinType*)theType; if (bType->isBooleanType()) { return qName + "(" ATHENA_YAML_READER ".readBool(\"" + bareFieldName + "\"))"; } else if (bType->isUnsignedInteger()) { if (width == 8) return qName + "(" ATHENA_YAML_READER ".readUByte(\"" + bareFieldName + "\"))"; else if (width == 16) return qName + "(" ATHENA_YAML_READER ".readUint16(\"" + bareFieldName + "\"))"; else if (width == 32) return qName + "(" ATHENA_YAML_READER ".readUint32(\"" + bareFieldName + "\"))"; else if (width == 64) return qName + "(" ATHENA_YAML_READER ".readUint64(\"" + bareFieldName + "\"))"; } else if (bType->isSignedInteger()) { if (width == 8) return qName + "(" ATHENA_YAML_READER ".readByte(\"" + bareFieldName + "\"))"; else if (width == 16) return qName + "(" ATHENA_YAML_READER ".readInt16(\"" + bareFieldName + "\"))"; else if (width == 32) return qName + "(" ATHENA_YAML_READER ".readInt32(\"" + bareFieldName + "\"))"; else if (width == 64) return qName + "(" ATHENA_YAML_READER ".readInt64(\"" + bareFieldName + "\"))"; } } else if (theType->isBuiltinType()) { const clang::BuiltinType* bType = (clang::BuiltinType*)theType; if (bType->isBooleanType()) { return ATHENA_YAML_READER ".readBool(\"" + bareFieldName + "\")"; } else if (bType->isUnsignedInteger()) { if (width == 8) return ATHENA_YAML_READER ".readUByte(\"" + bareFieldName + "\")"; else if (width == 16) return ATHENA_YAML_READER ".readUint16(\"" + bareFieldName + "\")"; else if (width == 32) return ATHENA_YAML_READER ".readUint32(\"" + bareFieldName + "\")"; else if (width == 64) return ATHENA_YAML_READER ".readUint64(\"" + bareFieldName + "\")"; } else if (bType->isSignedInteger()) { if (width == 8) return ATHENA_YAML_READER ".readByte(\"" + bareFieldName + "\")"; else if (width == 16) return ATHENA_YAML_READER ".readInt16(\"" + bareFieldName + "\")"; else if (width == 32) return ATHENA_YAML_READER ".readInt32(\"" + bareFieldName + "\")"; else if (width == 64) return ATHENA_YAML_READER ".readInt64(\"" + bareFieldName + "\")"; } else if (bType->isFloatingPoint()) { if (width == 32) return ATHENA_YAML_READER ".readFloat(\"" + bareFieldName + "\")"; else if (width == 64) return ATHENA_YAML_READER ".readDouble(\"" + bareFieldName + "\")"; } } else if (theType->isRecordType()) { const clang::CXXRecordDecl* rDecl = theType->getAsCXXRecordDecl(); for (const clang::FieldDecl* field : rDecl->fields()) { if (!field->getName().compare("clangVec")) { const clang::VectorType* vType = (clang::VectorType*)field->getType().getTypePtr(); if (vType->isVectorType()) { const clang::BuiltinType* eType = (clang::BuiltinType*)vType->getElementType().getTypePtr(); const uint64_t width = context.getTypeInfo(eType).Width; if (!eType->isBuiltinType() || !eType->isFloatingPoint() || (width != 32 && width != 64)) continue; if (vType->getNumElements() == 2) { if (width == 32) return ATHENA_YAML_READER ".readVec2f(\"" + bareFieldName + "\")"; else if (width == 64) return ATHENA_YAML_READER ".readVec2d(\"" + bareFieldName + "\")"; } else if (vType->getNumElements() == 3) { if (width == 32) return ATHENA_YAML_READER ".readVec3f(\"" + bareFieldName + "\")"; else if (width == 64) return ATHENA_YAML_READER ".readVec3d(\"" + bareFieldName + "\")"; } else if (vType->getNumElements() == 4) { if (width == 32) return ATHENA_YAML_READER ".readVec4f(\"" + bareFieldName + "\")"; else if (width == 64) return ATHENA_YAML_READER ".readVec4d(\"" + bareFieldName + "\")"; } } } } std::string baseDNA; bool isYAML = false; if (isDNARecord(rDecl, baseDNA, isYAML)) { isDNATypeOut = true; return "read(" ATHENA_YAML_READER ");"; } } } return std::string(); } #endif static std::string GetFieldString(const std::string& fieldName) { size_t underscorePos = fieldName.find('_'); std::string idString = fieldName; if (underscorePos != std::string::npos && underscorePos != fieldName.size() - 1) idString.assign(fieldName.begin() + underscorePos + 1, fieldName.end()); return idString; } static std::string GetPropIdExpr(const clang::FieldDecl* field, const std::string& fieldName) { std::string fieldStr = GetFieldString(fieldName); std::string propIdExpr = "\"" + fieldStr + "\""; for (clang::Attr* attr : field->attrs()) { if (clang::AnnotateAttr* annot = clang::dyn_cast(attr)) { llvm::StringRef text_ref = annot->getAnnotation(); if (text_ref.startswith_lower("rcrc32=")) { unsigned long num = strtoul(text_ref.data() + 7, nullptr, 16); std::string tmpS; llvm::raw_string_ostream s(tmpS); s << llvm::format("\"%s\", 0x%08X", fieldStr.c_str(), num); propIdExpr = s.str(); break; } } } return propIdExpr; } static std::string GetOpString(const std::string& fieldName, const std::string& propIdExpr, int64_t endianVal) { return "Do({" + propIdExpr + "}, " + fieldName + ", s)"; } static std::string GetOpString(const std::string& fieldName, const std::string& propIdExpr) { return "Do({" + propIdExpr + "}, " + fieldName + ", s)"; } static std::string GetVectorOpString(const std::string& fieldName, const std::string& propIdExpr, const std::string& sizeExpr, int64_t endianVal) { return "Do({" + propIdExpr + "}, " + fieldName + ", " + sizeExpr + ", s)"; } static std::string GetVectorOpString(const std::string& fieldName, const std::string& propIdExpr, const std::string& sizeExpr) { return "Do({" + propIdExpr + "}, " + fieldName + ", " + sizeExpr + ", s)"; } void emitEnumerateFunc(clang::CXXRecordDecl* decl, const std::string& baseDNA) { fileOut << "template \nvoid " << decl->getQualifiedNameAsString() << "::Enumerate(typename Op::StreamT& s)\n{\n"; if (baseDNA.size()) fileOut << " " << baseDNA << "::Enumerate(s);\n"; for (const clang::FieldDecl* field : decl->fields()) { clang::QualType qualType = field->getType(); const clang::Type* regType = qualType.getTypePtrOrNull(); if (!regType || regType->getTypeClass() == clang::Type::TemplateTypeParm) continue; clang::TypeInfo regTypeInfo = context.getTypeInfo(qualType); while (regType->getTypeClass() == clang::Type::Elaborated || regType->getTypeClass() == clang::Type::Typedef) regType = regType->getUnqualifiedDesugaredType(); /* Resolve constant array */ size_t arraySize = 1; bool isArray = false; if (regType->getTypeClass() == clang::Type::ConstantArray) { isArray = true; const clang::ConstantArrayType* caType = (clang::ConstantArrayType*)regType; arraySize = caType->getSize().getZExtValue(); qualType = caType->getElementType(); regTypeInfo = context.getTypeInfo(qualType); regType = qualType.getTypePtrOrNull(); if (regType->getTypeClass() == clang::Type::Elaborated) regType = regType->getUnqualifiedDesugaredType(); } for (int e=0 ; egetName().str() + subscript; } else fieldName = field->getName(); std::string propIdExpr = GetPropIdExpr(field, fieldName); if (regType->getTypeClass() == clang::Type::TemplateSpecialization) { const clang::TemplateSpecializationType* tsType = (const clang::TemplateSpecializationType*)regType; const clang::TemplateDecl* tsDecl = tsType->getTemplateName().getAsTemplateDecl(); const clang::TemplateParameterList* classParms = tsDecl->getTemplateParameters(); if (!tsDecl->getName().compare("Value")) { llvm::APSInt endian(64, -1); const clang::Expr* endianExpr = nullptr; if (classParms->size() >= 2) { const clang::NamedDecl* endianParm = classParms->getParam(1); if (endianParm->getKind() == clang::Decl::NonTypeTemplateParm) { const clang::NonTypeTemplateParmDecl* nttParm = (clang::NonTypeTemplateParmDecl*)endianParm; const clang::Expr* defArg = nttParm->getDefaultArgument(); endianExpr = defArg; if (!defArg->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(defArg->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(defArg->getSourceRange(), true)); continue; } } } for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::Expr* expr = arg.getAsExpr(); endianExpr = expr; if (!expr->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(expr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(expr->getSourceRange(), true)); continue; } } } int64_t endianVal = endian.getSExtValue(); if (endianVal != 0 && endianVal != 1) { if (endianExpr) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(endianExpr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(endianExpr->getSourceRange(), true)); } else { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); } continue; } clang::QualType templateType; std::string ioOp; bool isDNAType = false; const clang::TemplateArgument* typeArg = nullptr; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Type) { typeArg = &arg; templateType = arg.getAsType().getCanonicalType(); ioOp = GetOpString(fieldName, propIdExpr, endianVal); } } if (ioOp.empty()) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Unable to use type '" + tsDecl->getName().str() + "' with Athena"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); continue; } fileOut << " " << ioOp << ";\n"; } else if (!tsDecl->getName().compare("Vector")) { llvm::APSInt endian(64, -1); const clang::Expr* endianExpr = nullptr; if (classParms->size() >= 3) { const clang::NamedDecl* endianParm = classParms->getParam(2); if (endianParm->getKind() == clang::Decl::NonTypeTemplateParm) { const clang::NonTypeTemplateParmDecl* nttParm = (clang::NonTypeTemplateParmDecl*)endianParm; const clang::Expr* defArg = nttParm->getDefaultArgument(); endianExpr = defArg; if (!defArg->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(defArg->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(defArg->getSourceRange(), true)); continue; } } } std::string sizeExpr; const clang::TemplateArgument* sizeArg = nullptr; size_t idx = 0; bool bad = false; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::Expr* expr = arg.getAsExpr()->IgnoreImpCasts(); if (idx == 1) { sizeArg = &arg; const clang::UnaryExprOrTypeTraitExpr* uExpr = (clang::UnaryExprOrTypeTraitExpr*)expr; if (uExpr->getStmtClass() == clang::Stmt::UnaryExprOrTypeTraitExprClass && uExpr->getKind() == clang::UETT_SizeOf) { const clang::Expr* argExpr = uExpr->getArgumentExpr(); while (argExpr->getStmtClass() == clang::Stmt::ParenExprClass) argExpr = ((clang::ParenExpr*)argExpr)->getSubExpr(); llvm::raw_string_ostream strStream(sizeExpr); argExpr->printPretty(strStream, nullptr, context.getPrintingPolicy()); } } else if (idx == 2) { endianExpr = expr; if (!expr->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(expr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(expr->getSourceRange(), true)); bad = true; break; } } } ++idx; } if (bad) continue; int64_t endianVal = endian.getSExtValue(); if (endianVal != 0 && endianVal != 1) { if (endianExpr) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(endianExpr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(endianExpr->getSourceRange(), true)); } else { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); } continue; } clang::QualType templateType; std::string ioOp; bool isDNAType = false; const clang::TemplateArgument* typeArg = nullptr; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Type) { typeArg = &arg; templateType = arg.getAsType().getCanonicalType(); ioOp = GetVectorOpString(fieldName, propIdExpr, sizeExpr, endianVal); } } if (ioOp.empty()) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Unable to use type '" + templateType.getAsString() + "' with Athena"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); continue; } if (sizeExpr.empty()) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Unable to use count variable with Athena"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); continue; } fileOut << " " << ioOp << ";\n"; } else if (!tsDecl->getName().compare("Buffer")) { const clang::Expr* sizeExpr = nullptr; std::string sizeExprStr; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::UnaryExprOrTypeTraitExpr* uExpr = (clang::UnaryExprOrTypeTraitExpr*)arg.getAsExpr()->IgnoreImpCasts(); if (uExpr->getStmtClass() == clang::Stmt::UnaryExprOrTypeTraitExprClass && uExpr->getKind() == clang::UETT_SizeOf) { const clang::Expr* argExpr = uExpr->getArgumentExpr(); while (argExpr->getStmtClass() == clang::Stmt::ParenExprClass) argExpr = ((clang::ParenExpr*)argExpr)->getSubExpr(); sizeExpr = argExpr; llvm::raw_string_ostream strStream(sizeExprStr); argExpr->printPretty(strStream, nullptr, context.getPrintingPolicy()); } } } if (sizeExprStr.empty()) { if (sizeExpr) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(sizeExpr->getLocStart(), AthenaError); diag.AddString("Unable to use size variable with Athena"); diag.AddSourceRange(clang::CharSourceRange(sizeExpr->getSourceRange(), true)); } else { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Unable to use size variable with Athena"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); } continue; } std::string ioOp = GetVectorOpString(fieldName, propIdExpr, sizeExprStr); fileOut << " " << ioOp << ";\n"; } else if (!tsDecl->getName().compare("String")) { const clang::Expr* sizeExpr = nullptr; std::string sizeExprStr; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::Expr* expr = arg.getAsExpr()->IgnoreImpCasts(); const clang::UnaryExprOrTypeTraitExpr* uExpr = (clang::UnaryExprOrTypeTraitExpr*)expr; llvm::APSInt sizeLiteral; if (expr->getStmtClass() == clang::Stmt::UnaryExprOrTypeTraitExprClass && uExpr->getKind() == clang::UETT_SizeOf) { const clang::Expr* argExpr = uExpr->getArgumentExpr(); while (argExpr->getStmtClass() == clang::Stmt::ParenExprClass) argExpr = ((clang::ParenExpr*)argExpr)->getSubExpr(); sizeExpr = argExpr; llvm::raw_string_ostream strStream(sizeExprStr); argExpr->printPretty(strStream, nullptr, context.getPrintingPolicy()); } else if (expr->isIntegerConstantExpr(sizeLiteral, context)) { sizeExprStr = sizeLiteral.toString(10); } } } std::string ioOp; if (!sizeExprStr.empty()) ioOp = GetVectorOpString(fieldName, propIdExpr, sizeExprStr); else ioOp = GetOpString(fieldName, propIdExpr); fileOut << " " << ioOp << ";\n"; } else if (!tsDecl->getName().compare("WString")) { llvm::APSInt endian(64, -1); const clang::Expr* endianExpr = nullptr; if (classParms->size() >= 2) { const clang::NamedDecl* endianParm = classParms->getParam(1); if (endianParm->getKind() == clang::Decl::NonTypeTemplateParm) { const clang::NonTypeTemplateParmDecl* nttParm = (clang::NonTypeTemplateParmDecl*)endianParm; const clang::Expr* defArg = nttParm->getDefaultArgument(); endianExpr = defArg; if (!defArg->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(defArg->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(defArg->getSourceRange(), true)); continue; } } } const clang::Expr* sizeExpr = nullptr; std::string sizeExprStr; size_t idx = 0; bool bad = false; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::Expr* expr = arg.getAsExpr()->IgnoreImpCasts(); if (idx == 0) { llvm::APSInt sizeLiteral; const clang::UnaryExprOrTypeTraitExpr* uExpr = (clang::UnaryExprOrTypeTraitExpr*)expr; if (expr->getStmtClass() == clang::Stmt::UnaryExprOrTypeTraitExprClass && uExpr->getKind() == clang::UETT_SizeOf) { const clang::Expr* argExpr = uExpr->getArgumentExpr(); while (argExpr->getStmtClass() == clang::Stmt::ParenExprClass) argExpr = ((clang::ParenExpr*)argExpr)->getSubExpr(); sizeExpr = argExpr; llvm::raw_string_ostream strStream(sizeExprStr); argExpr->printPretty(strStream, nullptr, context.getPrintingPolicy()); } else if (expr->isIntegerConstantExpr(sizeLiteral, context)) { sizeExprStr = sizeLiteral.toString(10); } } else if (idx == 1) { endianExpr = expr; if (!expr->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(expr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(expr->getSourceRange(), true)); bad = true; break; } } } ++idx; } if (bad) continue; int64_t endianVal = endian.getSExtValue(); if (endianVal != 0 && endianVal != 1) { if (endianExpr) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(endianExpr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(endianExpr->getSourceRange(), true)); } else { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); } continue; } std::string ioOp; if (!sizeExprStr.empty()) ioOp = GetVectorOpString(fieldName, propIdExpr, sizeExprStr, endianVal); else ioOp = GetOpString(fieldName, propIdExpr, endianVal); fileOut << " " << ioOp << ";\n"; } else if (!tsDecl->getName().compare("Seek")) { size_t idx = 0; const clang::Expr* offsetExpr = nullptr; std::string offsetExprStr; llvm::APSInt direction(64, 0); const clang::Expr* directionExpr = nullptr; bool bad = false; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::Expr* expr = arg.getAsExpr()->IgnoreImpCasts(); if (!idx) { offsetExpr = expr; const clang::UnaryExprOrTypeTraitExpr* uExpr = (clang::UnaryExprOrTypeTraitExpr*)expr; llvm::APSInt offsetLiteral; if (expr->getStmtClass() == clang::Stmt::UnaryExprOrTypeTraitExprClass && uExpr->getKind() == clang::UETT_SizeOf) { const clang::Expr* argExpr = uExpr->getArgumentExpr(); while (argExpr->getStmtClass() == clang::Stmt::ParenExprClass) argExpr = ((clang::ParenExpr*)argExpr)->getSubExpr(); offsetExpr = argExpr; llvm::raw_string_ostream strStream(offsetExprStr); argExpr->printPretty(strStream, nullptr, context.getPrintingPolicy()); } else if (expr->isIntegerConstantExpr(offsetLiteral, context)) { offsetExprStr = offsetLiteral.toString(10); } } else { directionExpr = expr; if (!expr->isIntegerConstantExpr(direction, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(expr->getLocStart(), AthenaError); diag.AddString("Unable to use non-constant direction expression in Athena"); diag.AddSourceRange(clang::CharSourceRange(expr->getSourceRange(), true)); bad = true; break; } } } ++idx; } if (bad) continue; int64_t directionVal = direction.getSExtValue(); if (directionVal < 0 || directionVal > 2) { if (directionExpr) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(directionExpr->getLocStart(), AthenaError); diag.AddString("Direction parameter must be 'Begin', 'Current', or 'End'"); diag.AddSourceRange(clang::CharSourceRange(directionExpr->getSourceRange(), true)); } else { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Direction parameter must be 'Begin', 'Current', or 'End'"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); } continue; } if (directionVal == 0) fileOut << " DoSeek(" << offsetExprStr << ", Begin, s);\n"; else if (directionVal == 1) fileOut << " DoSeek(" << offsetExprStr << ", Current, s);\n"; else if (directionVal == 2) fileOut << " DoSeek(" << offsetExprStr << ", End, s);\n"; } else if (!tsDecl->getName().compare("Align")) { llvm::APSInt align(64, 0); bool bad = false; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::Expr* expr = arg.getAsExpr(); if (!expr->isIntegerConstantExpr(align, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(expr->getLocStart(), AthenaError); diag.AddString("Unable to use non-constant align expression in Athena"); diag.AddSourceRange(clang::CharSourceRange(expr->getSourceRange(), true)); bad = true; break; } } } if (bad) continue; int64_t alignVal = align.getSExtValue(); if (alignVal) { fileOut << " DoAlign(" << alignVal << ", s);\n"; } } } else if (regType->getTypeClass() == clang::Type::Record) { const clang::CXXRecordDecl* cxxRDecl = regType->getAsCXXRecordDecl(); std::string baseDNA; if (cxxRDecl && isDNARecord(cxxRDecl, baseDNA)) fileOut << " " << GetOpString(fieldName, propIdExpr) << ";\n"; } } } fileOut << "}\n\n"; } void emitLookupFunc(clang::CXXRecordDecl* decl, const std::string& baseDNA) { fileOut << "template \nbool " << decl->getQualifiedNameAsString() << "::Lookup(uint64_t hash, typename Op::StreamT& s)\n{\n"; if (baseDNA.size()) fileOut << " if (" << baseDNA << "::Lookup(hash, s))\n" << " return true;\n"; fileOut << " switch (hash)\n" << " {\n"; for (const clang::FieldDecl* field : decl->fields()) { clang::QualType qualType = field->getType(); const clang::Type* regType = qualType.getTypePtrOrNull(); if (!regType || regType->getTypeClass() == clang::Type::TemplateTypeParm) continue; clang::TypeInfo regTypeInfo = context.getTypeInfo(qualType); while (regType->getTypeClass() == clang::Type::Elaborated || regType->getTypeClass() == clang::Type::Typedef) regType = regType->getUnqualifiedDesugaredType(); /* Resolve constant array */ size_t arraySize = 1; bool isArray = false; if (regType->getTypeClass() == clang::Type::ConstantArray) { isArray = true; const clang::ConstantArrayType* caType = (clang::ConstantArrayType*)regType; arraySize = caType->getSize().getZExtValue(); qualType = caType->getElementType(); regTypeInfo = context.getTypeInfo(qualType); regType = qualType.getTypePtrOrNull(); if (regType->getTypeClass() == clang::Type::Elaborated) regType = regType->getUnqualifiedDesugaredType(); } for (int e=0 ; egetName().str() + subscript; } else fieldName = field->getName(); std::string propIdExpr = GetPropIdExpr(field, fieldName); if (regType->getTypeClass() == clang::Type::TemplateSpecialization) { const clang::TemplateSpecializationType* tsType = (const clang::TemplateSpecializationType*)regType; const clang::TemplateDecl* tsDecl = tsType->getTemplateName().getAsTemplateDecl(); const clang::TemplateParameterList* classParms = tsDecl->getTemplateParameters(); if (!tsDecl->getName().compare("Value")) { llvm::APSInt endian(64, -1); const clang::Expr* endianExpr = nullptr; if (classParms->size() >= 2) { const clang::NamedDecl* endianParm = classParms->getParam(1); if (endianParm->getKind() == clang::Decl::NonTypeTemplateParm) { const clang::NonTypeTemplateParmDecl* nttParm = (clang::NonTypeTemplateParmDecl*)endianParm; const clang::Expr* defArg = nttParm->getDefaultArgument(); endianExpr = defArg; if (!defArg->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(defArg->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(defArg->getSourceRange(), true)); continue; } } } for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::Expr* expr = arg.getAsExpr(); endianExpr = expr; if (!expr->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(expr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(expr->getSourceRange(), true)); continue; } } } int64_t endianVal = endian.getSExtValue(); if (endianVal != 0 && endianVal != 1) { if (endianExpr) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(endianExpr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(endianExpr->getSourceRange(), true)); } else { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); } continue; } clang::QualType templateType; std::string ioOp; bool isDNAType = false; const clang::TemplateArgument* typeArg = nullptr; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Type) { typeArg = &arg; templateType = arg.getAsType().getCanonicalType(); ioOp = GetOpString(fieldName, propIdExpr, endianVal); } } if (ioOp.empty()) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Unable to use type '" + tsDecl->getName().str() + "' with Athena"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); continue; } fileOut << " AT_PROP_CASE(" << propIdExpr << "):\n" << " " << ioOp << ";\n" << " return true;\n"; } else if (!tsDecl->getName().compare("Vector")) { llvm::APSInt endian(64, -1); const clang::Expr* endianExpr = nullptr; if (classParms->size() >= 3) { const clang::NamedDecl* endianParm = classParms->getParam(2); if (endianParm->getKind() == clang::Decl::NonTypeTemplateParm) { const clang::NonTypeTemplateParmDecl* nttParm = (clang::NonTypeTemplateParmDecl*)endianParm; const clang::Expr* defArg = nttParm->getDefaultArgument(); endianExpr = defArg; if (!defArg->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(defArg->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(defArg->getSourceRange(), true)); continue; } } } std::string sizeExpr; const clang::TemplateArgument* sizeArg = nullptr; size_t idx = 0; bool bad = false; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::Expr* expr = arg.getAsExpr()->IgnoreImpCasts(); if (idx == 1) { sizeArg = &arg; const clang::UnaryExprOrTypeTraitExpr* uExpr = (clang::UnaryExprOrTypeTraitExpr*)expr; if (uExpr->getStmtClass() == clang::Stmt::UnaryExprOrTypeTraitExprClass && uExpr->getKind() == clang::UETT_SizeOf) { const clang::Expr* argExpr = uExpr->getArgumentExpr(); while (argExpr->getStmtClass() == clang::Stmt::ParenExprClass) argExpr = ((clang::ParenExpr*)argExpr)->getSubExpr(); llvm::raw_string_ostream strStream(sizeExpr); argExpr->printPretty(strStream, nullptr, context.getPrintingPolicy()); } } else if (idx == 2) { endianExpr = expr; if (!expr->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(expr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(expr->getSourceRange(), true)); bad = true; break; } } } ++idx; } if (bad) continue; int64_t endianVal = endian.getSExtValue(); if (endianVal != 0 && endianVal != 1) { if (endianExpr) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(endianExpr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(endianExpr->getSourceRange(), true)); } else { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); } continue; } clang::QualType templateType; std::string ioOp; bool isDNAType = false; const clang::TemplateArgument* typeArg = nullptr; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Type) { typeArg = &arg; templateType = arg.getAsType().getCanonicalType(); ioOp = GetVectorOpString(fieldName, propIdExpr, sizeExpr, endianVal); } } if (ioOp.empty()) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Unable to use type '" + templateType.getAsString() + "' with Athena"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); continue; } if (sizeExpr.empty()) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Unable to use count variable with Athena"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); continue; } fileOut << " AT_PROP_CASE(" << propIdExpr << "):\n" << " " << ioOp << ";\n" << " return true;\n"; } else if (!tsDecl->getName().compare("Buffer")) { const clang::Expr* sizeExpr = nullptr; std::string sizeExprStr; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::UnaryExprOrTypeTraitExpr* uExpr = (clang::UnaryExprOrTypeTraitExpr*)arg.getAsExpr()->IgnoreImpCasts(); if (uExpr->getStmtClass() == clang::Stmt::UnaryExprOrTypeTraitExprClass && uExpr->getKind() == clang::UETT_SizeOf) { const clang::Expr* argExpr = uExpr->getArgumentExpr(); while (argExpr->getStmtClass() == clang::Stmt::ParenExprClass) argExpr = ((clang::ParenExpr*)argExpr)->getSubExpr(); sizeExpr = argExpr; llvm::raw_string_ostream strStream(sizeExprStr); argExpr->printPretty(strStream, nullptr, context.getPrintingPolicy()); } } } if (sizeExprStr.empty()) { if (sizeExpr) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(sizeExpr->getLocStart(), AthenaError); diag.AddString("Unable to use size variable with Athena"); diag.AddSourceRange(clang::CharSourceRange(sizeExpr->getSourceRange(), true)); } else { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Unable to use size variable with Athena"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); } continue; } std::string ioOp = GetVectorOpString(fieldName, propIdExpr, sizeExprStr); fileOut << " AT_PROP_CASE(" << propIdExpr << "):\n" << " " << ioOp << ";\n" << " return true;\n"; } else if (!tsDecl->getName().compare("String")) { const clang::Expr* sizeExpr = nullptr; std::string sizeExprStr; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::Expr* expr = arg.getAsExpr()->IgnoreImpCasts(); const clang::UnaryExprOrTypeTraitExpr* uExpr = (clang::UnaryExprOrTypeTraitExpr*)expr; llvm::APSInt sizeLiteral; if (expr->getStmtClass() == clang::Stmt::UnaryExprOrTypeTraitExprClass && uExpr->getKind() == clang::UETT_SizeOf) { const clang::Expr* argExpr = uExpr->getArgumentExpr(); while (argExpr->getStmtClass() == clang::Stmt::ParenExprClass) argExpr = ((clang::ParenExpr*)argExpr)->getSubExpr(); sizeExpr = argExpr; llvm::raw_string_ostream strStream(sizeExprStr); argExpr->printPretty(strStream, nullptr, context.getPrintingPolicy()); } else if (expr->isIntegerConstantExpr(sizeLiteral, context)) { sizeExprStr = sizeLiteral.toString(10); } } } std::string ioOp; if (!sizeExprStr.empty()) ioOp = GetVectorOpString(fieldName, propIdExpr, sizeExprStr); else ioOp = GetOpString(fieldName, propIdExpr); fileOut << " AT_PROP_CASE(" << propIdExpr << "):\n" << " " << ioOp << ";\n" << " return true;\n"; } else if (!tsDecl->getName().compare("WString")) { llvm::APSInt endian(64, -1); const clang::Expr* endianExpr = nullptr; if (classParms->size() >= 2) { const clang::NamedDecl* endianParm = classParms->getParam(1); if (endianParm->getKind() == clang::Decl::NonTypeTemplateParm) { const clang::NonTypeTemplateParmDecl* nttParm = (clang::NonTypeTemplateParmDecl*)endianParm; const clang::Expr* defArg = nttParm->getDefaultArgument(); endianExpr = defArg; if (!defArg->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(defArg->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(defArg->getSourceRange(), true)); continue; } } } const clang::Expr* sizeExpr = nullptr; std::string sizeExprStr; size_t idx = 0; bool bad = false; for (const clang::TemplateArgument& arg : *tsType) { if (arg.getKind() == clang::TemplateArgument::Expression) { const clang::Expr* expr = arg.getAsExpr()->IgnoreImpCasts(); if (idx == 0) { llvm::APSInt sizeLiteral; const clang::UnaryExprOrTypeTraitExpr* uExpr = (clang::UnaryExprOrTypeTraitExpr*)expr; if (expr->getStmtClass() == clang::Stmt::UnaryExprOrTypeTraitExprClass && uExpr->getKind() == clang::UETT_SizeOf) { const clang::Expr* argExpr = uExpr->getArgumentExpr(); while (argExpr->getStmtClass() == clang::Stmt::ParenExprClass) argExpr = ((clang::ParenExpr*)argExpr)->getSubExpr(); sizeExpr = argExpr; llvm::raw_string_ostream strStream(sizeExprStr); argExpr->printPretty(strStream, nullptr, context.getPrintingPolicy()); } else if (expr->isIntegerConstantExpr(sizeLiteral, context)) { sizeExprStr = sizeLiteral.toString(10); } } else if (idx == 1) { endianExpr = expr; if (!expr->isIntegerConstantExpr(endian, context)) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(expr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(expr->getSourceRange(), true)); bad = true; break; } } } ++idx; } if (bad) continue; int64_t endianVal = endian.getSExtValue(); if (endianVal != 0 && endianVal != 1) { if (endianExpr) { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(endianExpr->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(endianExpr->getSourceRange(), true)); } else { clang::DiagnosticBuilder diag = context.getDiagnostics().Report(field->getLocStart(), AthenaError); diag.AddString("Endian value must be 'BigEndian' or 'LittleEndian'"); diag.AddSourceRange(clang::CharSourceRange(field->getSourceRange(), true)); } continue; } std::string ioOp; if (!sizeExprStr.empty()) ioOp = GetVectorOpString(fieldName, propIdExpr, sizeExprStr, endianVal); else ioOp = GetOpString(fieldName, propIdExpr, endianVal); fileOut << " AT_PROP_CASE(" << propIdExpr << "):\n" << " " << ioOp << ";\n" << " return true;\n"; } } else if (regType->getTypeClass() == clang::Type::Record) { const clang::CXXRecordDecl* cxxRDecl = regType->getAsCXXRecordDecl(); std::string baseDNA; if (cxxRDecl && isDNARecord(cxxRDecl, baseDNA)) { fileOut << " AT_PROP_CASE(" << propIdExpr << "):\n" << " " << GetOpString(fieldName, propIdExpr) << ";\n" << " return true;\n"; } } } } fileOut << " default:\n return false;\n }\n}\n\n"; } public: explicit ATDNAEmitVisitor(clang::ASTContext& ctxin, StreamOut& fo) : context(ctxin), fileOut(fo) {} bool VisitCXXRecordDecl(clang::CXXRecordDecl* decl) { if (!EmitIncludes && !context.getSourceManager().isInMainFile(decl->getLocation())) return true; if (decl->isInvalidDecl() || !decl->hasDefinition() || !decl->isCompleteDefinition()) return true; if (!decl->getNumBases()) return true; /* First ensure this inherits from struct athena::io::DNA */ std::string baseDNA; if (!isDNARecord(decl, baseDNA)) return true; /* Make sure there isn't Delete meta type */ for (const clang::FieldDecl* field : decl->fields()) { clang::QualType qualType = field->getType().getCanonicalType(); const clang::Type* regType = qualType.getTypePtrOrNull(); if (regType) { const clang::CXXRecordDecl* rDecl = regType->getAsCXXRecordDecl(); if (rDecl) { if (!rDecl->getName().compare("Delete")) { const clang::CXXRecordDecl* rParentDecl = llvm::dyn_cast_or_null(rDecl->getParent()); if (rParentDecl) { std::string parentCheck = rParentDecl->getTypeForDecl()->getCanonicalTypeInternal().getAsString(); if (!parentCheck.compare(0, sizeof(ATHENA_DNA_BASETYPE)-1, ATHENA_DNA_BASETYPE)) return true; } } } } } emitEnumerateFunc(decl, baseDNA); emitLookupFunc(decl, baseDNA); fileOut << "AT_SPECIALIZE_DNA(" << decl->getQualifiedNameAsString() << ")\n\n"; return true; } }; class ATDNAConsumer : public clang::ASTConsumer { std::unique_ptr fileOut; StreamOut& fileOutOld; ATDNAEmitVisitor emitVisitor; public: explicit ATDNAConsumer(clang::ASTContext& context, std::unique_ptr&& fo, StreamOut* foOld) : fileOut(std::move(fo)), fileOutOld(*foOld), emitVisitor(context, *foOld) {} void HandleTranslationUnit(clang::ASTContext& context) override { /* Write file head */ fileOutOld << "/* Auto generated atdna implementation */\n" "#include \"athena/DNAOp.hpp\"\n"; for (const std::string& inputf : InputFilenames) fileOutOld << "#include \"" << inputf << "\"\n"; fileOutOld << "\n"; /* Emit file */ emitVisitor.TraverseDecl(context.getTranslationUnitDecl()); } }; class ATDNAAction : public clang::ASTFrontendAction { /* Used by LLVM 3.9+; client owns stream */ std::unique_ptr MakeStreamOut(std::unique_ptr&& so, StreamOut*& outPtr) { outPtr = so.get(); return std::move(so); } /* Used by previous versions of LLVM; CompilerInstance owns stream */ std::unique_ptr MakeStreamOut(StreamOut* so, StreamOut*& outPtr) { outPtr = so; return {}; } std::unique_ptr TheDependencyFileGenerator; public: explicit ATDNAAction() = default; std::unique_ptr CreateASTConsumer(clang::CompilerInstance& compiler, llvm::StringRef /*filename*/) override { clang::DependencyOutputOptions DepOpts; DepOpts.OutputFile = DepFileOut.getValue(); DepOpts.Targets = DepFileTargets; if (!DepOpts.OutputFile.empty()) TheDependencyFileGenerator.reset( clang::DependencyFileGenerator::CreateAndAttachToPreprocessor(compiler.getPreprocessor(), DepOpts)); std::unique_ptr fileout; StreamOut* fileoutOld; if (OutputFilename.size()) fileout = MakeStreamOut(compiler.createOutputFile(OutputFilename, false, true, "", "", true), fileoutOld); else fileout = MakeStreamOut(compiler.createDefaultOutputFile(false, "a", "cpp"), fileoutOld); AthenaError = compiler.getASTContext().getDiagnostics().getCustomDiagID(clang::DiagnosticsEngine::Error, "Athena error: %0"); return std::unique_ptr(new ATDNAConsumer(compiler.getASTContext(), std::move(fileout), fileoutOld)); } }; int main(int argc, const char** argv) { llvm::cl::ParseCommandLineOptions(argc, argv, "Athena DNA Generator"); if (Help) llvm::cl::PrintHelpMessage(); std::vector args = {"clang-tool", #ifdef __linux__ "--gcc-toolchain=/usr", #endif "-fsyntax-only", "-std=c++1z", "-D__atdna__=1", "-Wno-expansion-to-defined", "-Wno-nullability-completeness", "-Werror=shadow-field", "-I" XSTR(INSTALL_PREFIX) "/lib/clang/" CLANG_VERSION_STRING "/include", "-I" XSTR(INSTALL_PREFIX) "/include/Athena"}; for (int a=1 ; a fman(new clang::FileManager(clang::FileSystemOptions())); ATDNAAction* action = new ATDNAAction(); clang::tooling::ToolInvocation TI(args, action, fman.get()); if (!TI.run()) return 1; return 0; }