mirror of
https://github.com/ldc-developers/ldc.git
synced 2025-05-02 08:01:11 +03:00
Added pragma(llvmdc, "string") for misc per-module compiler configuration, currently "string" can only be "verbose" which forces -vv for module it appears in.
Reimplemented support for nested functions/class using a new approach. Added error on taking address of intrinsic. Fixed problems with the ->syntaxCopy of TypeFunction delegate exp. Removed DtoDType and replaced all uses with ->toBasetype() instead. Removed unused inplace stuff. Fixed a bunch of issues in the runtime unittests, not complete yet. Added mini tests.
This commit is contained in:
parent
b2d860374b
commit
9d7f16b967
39 changed files with 693 additions and 455 deletions
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@ -21,7 +21,7 @@
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#include "gen/classes.h"
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#include "gen/dvalue.h"
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const llvm::FunctionType* DtoFunctionType(Type* type, const LLType* thistype, bool ismain)
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const llvm::FunctionType* DtoFunctionType(Type* type, const LLType* thistype, const LLType* nesttype, bool ismain)
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{
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assert(type->ty == Tfunction);
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TypeFunction* f = (TypeFunction*)type;
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@ -46,6 +46,7 @@ const llvm::FunctionType* DtoFunctionType(Type* type, const LLType* thistype, bo
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Type* rt = f->next;
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bool retinptr = false;
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bool usesthis = false;
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bool usesnest = false;
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// parameter types
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std::vector<const LLType*> paramvec;
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@ -66,7 +67,7 @@ const llvm::FunctionType* DtoFunctionType(Type* type, const LLType* thistype, bo
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if (DtoIsReturnedInArg(rt)) {
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rettype = getPtrToType(DtoType(rt));
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actualRettype = LLType::VoidTy;
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f->llvmRetInPtr = retinptr = true;
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f->retInPtr = retinptr = true;
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}
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else {
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rettype = DtoType(rt);
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@ -75,7 +76,7 @@ const llvm::FunctionType* DtoFunctionType(Type* type, const LLType* thistype, bo
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if (unsigned ea = DtoShouldExtend(rt))
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{
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f->llvmRetAttrs |= ea;
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f->retAttrs |= ea;
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}
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}
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@ -88,6 +89,10 @@ const llvm::FunctionType* DtoFunctionType(Type* type, const LLType* thistype, bo
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paramvec.push_back(thistype);
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usesthis = true;
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}
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else if (nesttype) {
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paramvec.push_back(nesttype);
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usesnest = true;
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}
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if (typesafeVararg) {
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ClassDeclaration* ti = Type::typeinfo;
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@ -111,7 +116,7 @@ const llvm::FunctionType* DtoFunctionType(Type* type, const LLType* thistype, bo
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for (int i=0; i < n; ++i) {
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Argument* arg = Argument::getNth(f->parameters, i);
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// ensure scalar
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Type* argT = DtoDType(arg->type);
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Type* argT = arg->type->toBasetype();
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assert(argT);
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bool refOrOut = ((arg->storageClass & STCref) || (arg->storageClass & STCout));
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@ -166,8 +171,9 @@ const llvm::FunctionType* DtoFunctionType(Type* type, const LLType* thistype, bo
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bool isvararg = !(typesafeVararg || arrayVararg) && f->varargs;
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llvm::FunctionType* functype = llvm::FunctionType::get(actualRettype, paramvec, isvararg);
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f->llvmRetInPtr = retinptr;
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f->llvmUsesThis = usesthis;
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f->retInPtr = retinptr;
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f->usesThis = usesthis;
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f->usesNest = usesnest;
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f->ir.type = new llvm::PATypeHolder(functype);
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@ -210,7 +216,9 @@ const llvm::FunctionType* DtoFunctionType(FuncDeclaration* fdecl)
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if (fdecl->type->ir.type != 0)
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return llvm::cast<llvm::FunctionType>(fdecl->type->ir.type->get());
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const LLType* thisty = NULL;
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const LLType* thisty = 0;
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const LLType* nestty = 0;
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if (fdecl->needThis()) {
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if (AggregateDeclaration* ad = fdecl->isMember2()) {
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Logger::println("isMember = this is: %s", ad->type->toChars());
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@ -225,10 +233,10 @@ const llvm::FunctionType* DtoFunctionType(FuncDeclaration* fdecl)
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}
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}
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else if (fdecl->isNested()) {
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thisty = getPtrToType(LLType::Int8Ty);
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nestty = getPtrToType(LLType::Int8Ty);
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}
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const llvm::FunctionType* functype = DtoFunctionType(fdecl->type, thisty, fdecl->isMain());
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const llvm::FunctionType* functype = DtoFunctionType(fdecl->type, thisty, nestty, fdecl->isMain());
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return functype;
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}
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@ -237,7 +245,7 @@ const llvm::FunctionType* DtoFunctionType(FuncDeclaration* fdecl)
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static llvm::Function* DtoDeclareVaFunction(FuncDeclaration* fdecl)
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{
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TypeFunction* f = (TypeFunction*)DtoDType(fdecl->type);
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TypeFunction* f = (TypeFunction*)fdecl->type->toBasetype();
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const llvm::FunctionType* fty = DtoVaFunctionType(fdecl);
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llvm::Function* func = 0;
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@ -306,8 +314,9 @@ void DtoResolveFunction(FuncDeclaration* fdecl)
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static void set_param_attrs(TypeFunction* f, llvm::Function* func, FuncDeclaration* fdecl)
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{
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int llidx = 1;
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if (f->llvmRetInPtr) ++llidx;
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if (f->llvmUsesThis) ++llidx;
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if (f->retInPtr) ++llidx;
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if (f->usesThis) ++llidx;
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else if (f->usesNest) ++llidx;
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if (f->linkage == LINKd && f->varargs == 1)
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llidx += 2;
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@ -318,15 +327,15 @@ static void set_param_attrs(TypeFunction* f, llvm::Function* func, FuncDeclarati
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llvm::ParamAttrsWithIndex PAWI;
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// set return value attrs if any
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if (f->llvmRetAttrs)
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if (f->retAttrs)
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{
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PAWI.Index = 0;
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PAWI.Attrs = f->llvmRetAttrs;
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PAWI.Attrs = f->retAttrs;
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attrs.push_back(PAWI);
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}
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// set sret param
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if (f->llvmRetInPtr)
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if (f->retInPtr)
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{
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PAWI.Index = 1;
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PAWI.Attrs = llvm::ParamAttr::StructRet;
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@ -378,7 +387,7 @@ void DtoDeclareFunction(FuncDeclaration* fdecl)
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}
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// get TypeFunction*
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Type* t = DtoDType(fdecl->type);
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Type* t = fdecl->type->toBasetype();
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TypeFunction* f = (TypeFunction*)t;
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bool declareOnly = false;
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@ -417,8 +426,6 @@ void DtoDeclareFunction(FuncDeclaration* fdecl)
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llvm::Function* func = vafunc ? vafunc : gIR->module->getFunction(mangled_name);
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if (!func)
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func = llvm::Function::Create(functype, DtoLinkage(fdecl), mangled_name, gIR->module);
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else
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assert(func->getFunctionType() == functype);
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// add func to IRFunc
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fdecl->ir.irFunc->func = func;
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@ -457,15 +464,22 @@ void DtoDeclareFunction(FuncDeclaration* fdecl)
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// name parameters
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llvm::Function::arg_iterator iarg = func->arg_begin();
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int k = 0;
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if (f->llvmRetInPtr) {
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iarg->setName("retval");
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if (f->retInPtr) {
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iarg->setName(".sretarg");
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fdecl->ir.irFunc->retArg = iarg;
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++iarg;
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}
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if (f->llvmUsesThis) {
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iarg->setName(fdecl->isNested()?".context":"this");
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fdecl->ir.irFunc->thisVar = iarg;
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assert(fdecl->ir.irFunc->thisVar);
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if (f->usesThis) {
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iarg->setName("this");
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fdecl->ir.irFunc->thisArg = iarg;
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assert(fdecl->ir.irFunc->thisArg);
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++iarg;
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}
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else if (f->usesNest) {
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iarg->setName(".nest");
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fdecl->ir.irFunc->nestArg = iarg;
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assert(fdecl->ir.irFunc->nestArg);
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++iarg;
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}
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@ -520,13 +534,19 @@ void DtoDefineFunc(FuncDeclaration* fd)
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Logger::println("DtoDefineFunc(%s): %s", fd->toPrettyChars(), fd->loc.toChars());
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LOG_SCOPE;
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// warn about naked
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if (fd->naked)
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{
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warning("%s: naked is currently ignored", fd->locToChars());
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}
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// debug info
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if (global.params.symdebug) {
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Module* mo = fd->getModule();
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fd->ir.irFunc->dwarfSubProg = DtoDwarfSubProgram(fd);
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}
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Type* t = DtoDType(fd->type);
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Type* t = fd->type->toBasetype();
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TypeFunction* f = (TypeFunction*)t;
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assert(f->ir.type);
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// debug info - after all allocas, but before any llvm.dbg.declare etc
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if (global.params.symdebug) DtoDwarfFuncStart(fd);
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// need result variable? (not nested)
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if (fd->vresult && !fd->vresult->nestedref) {
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Logger::println("non-nested vresult value");
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// need result variable?
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if (fd->vresult) {
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Logger::println("vresult value");
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fd->vresult->ir.irLocal = new IrLocal(fd->vresult);
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fd->vresult->ir.irLocal->value = DtoAlloca(DtoType(fd->vresult->type),"function_vresult");
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fd->vresult->ir.irLocal->value = DtoAlloca(DtoType(fd->vresult->type), "function_vresult");
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}
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// give the 'this' argument storage and debug info
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// only if not referenced by nested functions
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if (fd->needThis() && !fd->vthis->nestedref)
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if (f->usesThis)
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{
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LLValue* thisvar = irfunction->thisVar;
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LLValue* thisvar = irfunction->thisArg;
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assert(thisvar);
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LLValue* thismem = DtoAlloca(thisvar->getType(), ".newthis");
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LLValue* thismem = DtoAlloca(thisvar->getType(), ".this");
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DtoStore(thisvar, thismem);
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irfunction->thisVar = thismem;
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irfunction->thisArg = thismem;
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assert(!fd->vthis->ir.irLocal);
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fd->vthis->ir.irLocal = new IrLocal(fd->vthis);
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fd->vthis->ir.irLocal->value = thismem;
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if (global.params.symdebug)
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DtoDwarfLocalVariable(thismem, fd->vthis);
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if (fd->vthis->nestedref)
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fd->nestedVars.insert(fd->vthis);
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}
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// give arguments storage
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Dsymbol* argsym = (Dsymbol*)fd->parameters->data[i];
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VarDeclaration* vd = argsym->isVarDeclaration();
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assert(vd);
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if (vd->nestedref)
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fd->nestedVars.insert(vd);
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IrLocal* irloc = vd->ir.irLocal;
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assert(irloc);
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bool refoutlazy = vd->storage_class & (STCref | STCout | STClazy);
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if (vd->nestedref || refoutlazy)
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if (refoutlazy)
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{
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continue;
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}
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@ -625,66 +654,99 @@ void DtoDefineFunc(FuncDeclaration* fd)
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}
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}
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LLValue* parentNested = NULL;
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if (FuncDeclaration* fd2 = fd->toParent2()->isFuncDeclaration()) {
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if (!fd->isStatic()) // huh?
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parentNested = fd2->ir.irFunc->nestedVar;
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}
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// need result variable? (nested)
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if (fd->vresult && fd->vresult->nestedref) {
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Logger::println("nested vresult value: %s", fd->vresult->toChars());
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fd->nestedVars.insert(fd->vresult);
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}
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// construct nested variables struct
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if (!fd->nestedVars.empty() || parentNested) {
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std::vector<const LLType*> nestTypes;
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int j = 0;
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if (parentNested) {
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nestTypes.push_back(parentNested->getType());
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j++;
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// construct nested variables array
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if (!fd->nestedVars.empty())
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{
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Logger::println("has nested frame");
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// start with add all enclosing parent frames
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int nparelems = 0;
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Dsymbol* par = fd->toParent2();
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while (par)
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{
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if (FuncDeclaration* parfd = par->isFuncDeclaration())
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{
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nparelems += parfd->nestedVars.size();
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}
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else if (ClassDeclaration* parcd = par->isClassDeclaration())
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{
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// nothing needed
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}
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else
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{
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break;
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}
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par = par->toParent2();
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}
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for (std::set<VarDeclaration*>::iterator i=fd->nestedVars.begin(); i!=fd->nestedVars.end(); ++i) {
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int nelems = fd->nestedVars.size() + nparelems;
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// make array type for nested vars
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const LLType* nestedVarsTy = LLArrayType::get(getVoidPtrType(), nelems);
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// alloca it
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LLValue* nestedVars = DtoAlloca(nestedVarsTy, ".nested_vars");
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// copy parent frame into beginning
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if (nparelems)
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{
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LLValue* src = irfunction->nestArg;
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if (!src)
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{
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assert(irfunction->thisArg);
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assert(fd->isMember2());
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LLValue* thisval = DtoLoad(irfunction->thisArg);
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ClassDeclaration* cd = fd->isMember2()->isClassDeclaration();
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assert(cd);
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assert(cd->vthis);
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src = DtoLoad(DtoGEPi(thisval, 0,2+cd->vthis->ir.irField->index, ".vthis"));
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}
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DtoMemCpy(nestedVars, src, DtoConstSize_t(nparelems*PTRSIZE));
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}
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// store in IrFunction
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irfunction->nestedVar = nestedVars;
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// go through all nested vars and assign indices
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int idx = nparelems;
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for (std::set<VarDeclaration*>::iterator i=fd->nestedVars.begin(); i!=fd->nestedVars.end(); ++i)
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{
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VarDeclaration* vd = *i;
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Logger::println("referenced nested variable %s", vd->toChars());
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if (!vd->ir.irLocal)
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vd->ir.irLocal = new IrLocal(vd);
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vd->ir.irLocal->nestedIndex = j++;
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if (vd->isParameter()) {
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if (!vd->ir.irLocal->value) {
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assert(vd == fd->vthis);
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vd->ir.irLocal->value = fd->ir.irFunc->thisVar;
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}
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assert(vd->ir.irLocal->value);
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nestTypes.push_back(vd->ir.irLocal->value->getType());
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if (vd->isParameter())
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{
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Logger::println("nested param: %s", vd->toChars());
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LLValue* gep = DtoGEPi(nestedVars, 0, idx);
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LLValue* val = DtoBitCast(vd->ir.irLocal->value, getVoidPtrType());
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DtoStore(val, gep);
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}
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else {
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nestTypes.push_back(DtoType(vd->type));
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else
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{
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Logger::println("nested var: %s", vd->toChars());
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}
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vd->ir.irLocal->nestedIndex = idx++;
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}
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const llvm::StructType* nestSType = llvm::StructType::get(nestTypes);
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Logger::cout() << "nested var struct has type:" << *nestSType << '\n';
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fd->ir.irFunc->nestedVar = DtoAlloca(nestSType,"nestedvars");
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if (parentNested) {
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assert(fd->ir.irFunc->thisVar);
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LLValue* ptr = gIR->ir->CreateBitCast(fd->ir.irFunc->thisVar, parentNested->getType(), "tmp");
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gIR->ir->CreateStore(ptr, DtoGEPi(fd->ir.irFunc->nestedVar, 0,0, "tmp"));
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}
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for (std::set<VarDeclaration*>::iterator i=fd->nestedVars.begin(); i!=fd->nestedVars.end(); ++i) {
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VarDeclaration* vd = *i;
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if (vd->isParameter()) {
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assert(vd->ir.irLocal);
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gIR->ir->CreateStore(vd->ir.irLocal->value, DtoGEPi(fd->ir.irFunc->nestedVar, 0, vd->ir.irLocal->nestedIndex, "tmp"));
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vd->ir.irLocal->value = fd->ir.irFunc->nestedVar;
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}
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// fixup nested result variable
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if (fd->vresult && fd->vresult->nestedref) {
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Logger::println("nested vresult value: %s", fd->vresult->toChars());
|
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LLValue* gep = DtoGEPi(nestedVars, 0, fd->vresult->ir.irLocal->nestedIndex);
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LLValue* val = DtoBitCast(fd->vresult->ir.irLocal->value, getVoidPtrType());
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DtoStore(val, gep);
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}
|
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}
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// copy _argptr to a memory location
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if (f->linkage == LINKd && f->varargs == 1)
|
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{
|
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LLValue* argptrmem = DtoAlloca(fd->ir.irFunc->_argptr->getType(), "_argptrmem");
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LLValue* argptrmem = DtoAlloca(fd->ir.irFunc->_argptr->getType(), "_argptr_mem");
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new llvm::StoreInst(fd->ir.irFunc->_argptr, argptrmem, gIR->scopebb());
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fd->ir.irFunc->_argptr = argptrmem;
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}
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|
@ -784,14 +846,14 @@ DValue* DtoArgument(Argument* fnarg, Expression* argexp)
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if (fnarg && ((fnarg->storageClass & STCref) || (fnarg->storageClass & STCout)))
|
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{
|
||||
if (arg->isVar() || arg->isLRValue())
|
||||
arg = new DImValue(argexp->type, arg->getLVal(), false);
|
||||
arg = new DImValue(argexp->type, arg->getLVal());
|
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else
|
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arg = new DImValue(argexp->type, arg->getRVal(), false);
|
||||
arg = new DImValue(argexp->type, arg->getRVal());
|
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}
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// byval arg, but expr has no storage yet
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else if (DtoIsPassedByRef(argexp->type) && (arg->isSlice() || arg->isComplex() || arg->isNull()))
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{
|
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LLValue* alloc = DtoAlloca(DtoType(argexp->type), "tmpparam");
|
||||
LLValue* alloc = DtoAlloca(DtoType(argexp->type), ".tmp_arg");
|
||||
DVarValue* vv = new DVarValue(argexp->type, alloc, true);
|
||||
DtoAssign(argexp->loc, vv, arg);
|
||||
arg = vv;
|
||||
|
|
Loading…
Add table
Add a link
Reference in a new issue