List of usage examples for org.objectweb.asm Opcodes INVOKESTATIC
int INVOKESTATIC
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From source file:com.sun.fortress.compiler.asmbytecodeoptimizer.RemoveLiteralCoercions.java
License:Open Source License
public static Substitution removeFloatLiterals(ByteCodeMethodVisitor bcmv) { String floatLiteral = "com/sun/fortress/compiler/runtimeValues/FFloatLiteral"; String RR64 = "com/sun/fortress/compiler/runtimeValues/FRR64"; ArrayList<Insn> matches = new ArrayList<Insn>(); matches.add(new MethodInsn("INVOKESTATIC", Opcodes.INVOKESTATIC, floatLiteral, "make", "(D)L" + floatLiteral + ";", "targetedForRemoval")); matches.add(new LabelInsn("LabelInsn", new Label(), "targetedForRemoval")); matches.add(new VisitLineNumberInsn("visitlinenumber", 0, new Label(), "targetedForRemoval")); matches.add(new MethodInsn("INVOKESTATIC", Opcodes.INVOKESTATIC, "fortress/CompilerBuiltin", "coerce_RR64", "(Lfortress/CompilerBuiltin$FloatLiteral;)L" + RR64 + ";", "targetedForRemoval")); ArrayList<Insn> replacements = new ArrayList<Insn>(); replacements.add(new MethodInsn("INVOKESTATIC", Opcodes.INVOKESTATIC, RR64, "make", "(D)L" + RR64 + ";", "ReplacementInsn")); return new Substitution(matches, replacements); }
From source file:com.sun.fortress.compiler.asmbytecodeoptimizer.RemoveLiteralCoercions.java
License:Open Source License
public static Substitution removeFloatLiterals2(ByteCodeMethodVisitor bcmv) { String floatLiteral = "com/sun/fortress/compiler/runtimeValues/FFloatLiteral"; String RR64 = "com/sun/fortress/compiler/runtimeValues/FRR64"; ArrayList<Insn> matches = new ArrayList<Insn>(); matches.add(new MethodInsn("INVOKESTATIC", Opcodes.INVOKESTATIC, floatLiteral, "make", "(D)L" + floatLiteral + ";", "targetedForRemoval")); matches.add(new VarInsn("ASTORE", Opcodes.ASTORE, 0, "targetedForRemoval")); matches.add(new LabelInsn("LabelInsn", new Label(), "targetedForRemoval")); matches.add(new VisitLineNumberInsn("visitlinenumber", 0, new Label(), "targetedForRemoval")); matches.add(new VarInsn("ALOAD", Opcodes.ALOAD, 0, "targetedForRemoval")); matches.add(new LabelInsn("LabelInsn", new Label(), "targetedForRemoval")); matches.add(new VisitLineNumberInsn("visitlinenumber", 0, new Label(), "targetedForRemoval")); matches.add(new MethodInsn("INVOKESTATIC", Opcodes.INVOKESTATIC, "fortress/CompilerBuiltin", "coerce_RR64", "(Lfortress/CompilerBuiltin$FloatLiteral;)L" + RR64 + ";", "targetedForRemoval")); ArrayList<Insn> replacements = new ArrayList<Insn>(); replacements.add(new MethodInsn("INVOKESTATIC", Opcodes.INVOKESTATIC, RR64, "make", "(D)L" + RR64 + ";", "ReplacementInsn")); return new Substitution(matches, replacements); }
From source file:com.sun.fortress.compiler.nativeInterface.fortressConverter.java
License:Open Source License
void convertResult(MethodVisitor mv, String classDesc) { mv.visitMethodInsn(Opcodes.INVOKESTATIC, FortressMethodAdapter.descToType(classDesc), constructor, constructorType); }
From source file:com.sun.fortress.compiler.nativeInterface.fortressConverter.java
License:Open Source License
private MethodVisitor generateNewBody(int access, String desc, String signature, String[] exceptions, String name, String newName) { Debug.debug(Debug.Type.COMPILER, 1, "generateNewBody: ", name, " with desc ", desc); SignatureParser sp = new SignatureParser(desc); List<String> desc_args = sp.getJVMArguments(); String desc_result = sp.getJVMResult(); List<String> fortress_args = new ArrayList<String>(); List<fortressConverter> convert_args = new ArrayList<fortressConverter>(); String fsig = "("; StringBuilder buf = new StringBuilder(); buf.append(fsig);//w w w. j av a2s . c om for (String s : desc_args) { SignatureAndConverter s_a_c = toImplFFFF(s, name, false); buf.append(s_a_c.signature); fortress_args.add(s_a_c.signature); convert_args.add(s_a_c.converter); } fsig = buf.toString(); SignatureAndConverter s_a_c = toImplFFFF(desc_result, name, true); fsig = fsig + ")" + s_a_c.signature; fortressConverter convert_result = s_a_c.converter; // FORWARDING METHOD, only with type conversions on the way in/out! MethodVisitor mv = cv.visitMethod(access, name, fsig, signature, exceptions); mv.visitCode(); Label l0 = new Label(); mv.visitLabel(l0); int count = 0; for (String s : fortress_args) { fortressConverter converter = convert_args.get(count); mv.visitVarInsn(Opcodes.ALOAD, count++); converter.convertArg(mv, s); } Debug.debug(Debug.Type.COMPILER, 1, "className = ", inputClassName, " name = ", name, " access = ", access); mv.visitMethodInsn(Opcodes.INVOKESTATIC, inputClassName, name, sp.getSignature()); convert_result.convertResult(mv, s_a_c.signature); mv.visitInsn(Opcodes.ARETURN); mv.visitMaxs(2, 1); mv.visitEnd(); return mv; }
From source file:com.sun.fortress.compiler.OverloadSet.java
License:Open Source License
public void generateCall(MethodVisitor mv, int firstArgIndex, int one_if_method_closure) { if (!splitDone) { throw new CompilerError("Must split overload set before generating call(s)"); }//from w ww .j a va2 s . c o m int l = specificDispatchOrder.length; TaggedFunctionName[] functionsToCall = new TaggedFunctionName[l]; for (int i = 0; i < l; i++) { functionsToCall[i] = getFunctionToCall(specificDispatchOrder[i]); } // create type structures for parameter types. TypeStructure[][] type_structures = new TypeStructure[l][]; MultiMap[] spmaps = new MultiMap[l]; TypeStructure[] return_type_structures = new TypeStructure[l]; for (int i = 0; i < l; i++) { TaggedFunctionName f = functionsToCall[i]; Functional eff = f.getF(); List<Param> parameters = f.getParameters(); MultiMap<String, TypeStructure> spmap = new MultiMap<String, TypeStructure>(); spmaps[i] = spmap; List<StaticParam> staticParams = staticParametersOf(f.getF()); Type rt = oa.getRangeType(eff); return_type_structures[i] = makeTypeStructure(rt, null, 1, 0, staticParams, eff); // skip parameters -- no 'this' for ordinary functions if (parameters.size() == 1 && oa.getDomainType(eff) instanceof TupleType) { TupleType tt = (TupleType) oa.getDomainType(eff); List<Type> tl = tt.getElements(); int storeAtIndex = tl.size(); // DRC back this out + firstArgIndex; // little dubious here, not sure we are getting the // right type structures for generic methods. what about 'self' TypeStructure[] f_type_structures = new TypeStructure[tl.size()]; type_structures[i] = f_type_structures; for (int j = 0; j < tl.size(); j++) { Type t = STypesUtil.insertStaticParams(tl.get(j), tt.getInfo().getStaticParams()); TypeStructure type_structure = makeTypeStructure(t, spmap, 1, storeAtIndex, staticParams, eff); f_type_structures[j] = type_structure; storeAtIndex = type_structure.successorIndex; } } else { int storeAtIndex = parameters.size(); // DRC back this out + firstArgIndex; TypeStructure[] f_type_structures = new TypeStructure[parameters.size()]; type_structures[i] = f_type_structures; for (int j = 0; j < parameters.size(); j++) { if (j != selfIndex()) { Type t = oa.getParamType(eff, j); TypeStructure type_structure = makeTypeStructure(t, spmap, 1, storeAtIndex, staticParams, eff); f_type_structures[j] = type_structure; storeAtIndex = type_structure.successorIndex; } } } } for (int i = 0; i < l; i++) { TaggedFunctionName f = functionsToCall[i]; TypeStructure[] f_type_structures = type_structures[i]; Label lookahead = null; boolean infer = false; List<StaticParam> staticParams = staticParametersOf(f.getF()); boolean last_case = i == l - 1; /* Trust the static checker; no need to verify * applicability of the last one. * Also, static parameters will be provided by static checker for the last one */ // Will need lookahead for the next one. lookahead = new Label(); // if this was a generic method that needs inference, we need to include the receiver argument // in the inference even if the firstArgIndex is 1 so that we can include it in inference // and dispatch //KBN-WIP is there a cleaner way to do this? int offset = (f_type_structures.length == specificDispatchOrder[i].getParameters().size()) ? firstArgIndex : 0; for (int j = 0; j < f_type_structures.length; j++) { if (j != selfIndex()) { //inference needed if the type structure contains generics TODO: do generics not appearing in the parameters make sense? probably not, but might need to deal with them. if (f_type_structures[j].containsTypeVariables) infer = true; } } if (infer || !last_case) for (int j = 0; j < f_type_structures.length; j++) { // Load actual parameter if (j != selfIndex()) { mv.visitVarInsn(Opcodes.ALOAD, j + offset); f_type_structures[j].emitInstanceOf(mv, lookahead, true); } } //Runtime inference for some cases if (infer) { @SuppressWarnings("unchecked") MultiMap<String, TypeStructure> staticTss = spmaps[i]; int localCount = f_type_structures[f_type_structures.length - 1].successorIndex; //counter for use storing stuff such as lower bounds //create type structures for lower bounds Map<StaticParam, TypeStructure> lowerBounds = new HashMap<StaticParam, TypeStructure>(); for (StaticParam sp : staticParams) lowerBounds.put(sp, makeParamTypeStructure(sp, localCount++, TypeStructure.COVARIANT)); //gather different types of bounds into Multimaps for use later MultiMap<StaticParam, StaticParam> relativeLowerBounds = new MultiMap<StaticParam, StaticParam>(); //form X :> Y MultiMap<StaticParam, Type> genericUpperBounds = new MultiMap<StaticParam, Type>(); //form X <: GenericStem[\ ... \] where Y appears in ... MultiMap<StaticParam, Type> concreteUpperBounds = new MultiMap<StaticParam, Type>(); //form X <: T where T contains no type variables for (int outer = 0; outer < staticParams.size(); outer++) { StaticParam outerSP = staticParams.get(outer); for (BaseType bt : outerSP.getExtendsClause()) { if (bt instanceof VarType) { // outerSP <: bt so outerSP will provide a lower bound on BT String varName = ((VarType) bt).getName().getText(); boolean found = false; for (int inner = 0; inner < outer && !found; inner++) { StaticParam innerSP = staticParams.get(inner); if (varName.equals(innerSP.getName().getText())) { relativeLowerBounds.putItem(innerSP, outerSP); // outerSP provides a lower bound on innerSP found = true; } } if (!found) throw new CompilerError( "Bad Scoping of static parameters found during runtime inference codegen:" + varName + " not declared before used in a bound"); } else if (bt instanceof AnyType) { //figure out if concrete or generic //do nothing - no need to add meaningless upper bound } else if (bt instanceof NamedType) { if (isGeneric(bt)) genericUpperBounds.putItem(outerSP, bt); else concreteUpperBounds.putItem(outerSP, bt); } } } //infer and load RTTIs for (int j = 0; j < staticParams.size(); j++) { StaticParam sp = staticParams.get(staticParams.size() - 1 - j); //reverse order due to left to right scoping Set<TypeStructure> instances = staticTss.get(sp.getName().getText()); //sort static parameters by their variance and put into //arrays using their local variable number List<Integer> invariantInstances = new ArrayList<Integer>(); List<Integer> covariantInstances = new ArrayList<Integer>(); List<Integer> contravariantInstances = new ArrayList<Integer>(); if (instances != null) for (TypeStructure ts : instances) { switch (ts.variance) { case TypeStructure.INVARIANT: invariantInstances.add(ts.localIndex); break; case TypeStructure.CONTRAVARIANT: contravariantInstances.add(ts.localIndex); break; case TypeStructure.COVARIANT: covariantInstances.add(ts.localIndex); break; default: throw new CompilerError("Unexpected Variance on TypeStructure during " + "generic instantiation analysis for overload dispatch"); } } // if any invariant instances, we must use that RTTI and check that //1) any other invariant instances are the same type (each subtypes the other) //2) any covariant instances are subtypes of the invariant instance //3) any contravariant instances are supertypes of the invariant instance if (invariantInstances.size() > 0) { //a valid instantiation must use the runtime type //of all invariant instances (which must all be the same) //thus, wlog, we can use the first invariant instance int RTTItoUse = invariantInstances.get(0); //1) for each other invariant instance, they must be the same //which we test by checking that each subtypes the other for (int k = 1; k < invariantInstances.size(); k++) { int RTTIcompare = invariantInstances.get(k); //RTTItoUse.runtimeSupertypeOf(RTTIcompare) mv.visitVarInsn(Opcodes.ALOAD, RTTItoUse); mv.visitVarInsn(Opcodes.ALOAD, RTTIcompare); mv.visitMethodInsn(Opcodes.INVOKEVIRTUAL, Naming.RTTI_CONTAINER_TYPE, Naming.RTTI_SUBTYPE_METHOD_NAME, Naming.RTTI_SUBTYPE_METHOD_SIG); mv.visitJumpInsn(Opcodes.IFEQ, lookahead); //if false fail //RTTIcompare.runtimeSupertypeOf(RTTItoUse) mv.visitVarInsn(Opcodes.ALOAD, RTTIcompare); mv.visitVarInsn(Opcodes.ALOAD, RTTItoUse); mv.visitMethodInsn(Opcodes.INVOKEVIRTUAL, Naming.RTTI_CONTAINER_TYPE, Naming.RTTI_SUBTYPE_METHOD_NAME, Naming.RTTI_SUBTYPE_METHOD_SIG); mv.visitJumpInsn(Opcodes.IFEQ, lookahead); //if false fail } //2) for each covariant instance, the runtime type (RTTIcompare) must be a // subtype of the instantiated type (RTTItoUse) for (int RTTIcompare : covariantInstances) { //RTTItoUse.runtimeSupertypeOf(RTTIcompare) mv.visitVarInsn(Opcodes.ALOAD, RTTItoUse); mv.visitVarInsn(Opcodes.ALOAD, RTTIcompare); mv.visitMethodInsn(Opcodes.INVOKEVIRTUAL, Naming.RTTI_CONTAINER_TYPE, Naming.RTTI_SUBTYPE_METHOD_NAME, Naming.RTTI_SUBTYPE_METHOD_SIG); mv.visitJumpInsn(Opcodes.IFEQ, lookahead); //if false fail } //3) for each contravariant instance, the instantiated type (RTTItoUse) must be a // subtype of the runtime type (RTTIcompare) for (int RTTIcompare : contravariantInstances) { //RTTIcompare.runtimeSupertypeOf(RTTItoUse) mv.visitVarInsn(Opcodes.ALOAD, RTTIcompare); mv.visitVarInsn(Opcodes.ALOAD, RTTItoUse); mv.visitMethodInsn(Opcodes.INVOKEVIRTUAL, Naming.RTTI_CONTAINER_TYPE, Naming.RTTI_SUBTYPE_METHOD_NAME, Naming.RTTI_SUBTYPE_METHOD_SIG); mv.visitJumpInsn(Opcodes.IFEQ, lookahead); //if false fail } //check lower bounds given by other variables Set<StaticParam> relativeLB = relativeLowerBounds.get(sp); if (relativeLB != null) for (StaticParam lb : relativeLB) { //RTTItoUse.runtimeSupertypeOf(otherLB) int otherOffset = lowerBounds.get(lb).localIndex; mv.visitVarInsn(Opcodes.ALOAD, RTTItoUse); mv.visitVarInsn(Opcodes.ALOAD, otherOffset); mv.visitMethodInsn(Opcodes.INVOKEVIRTUAL, Naming.RTTI_CONTAINER_TYPE, Naming.RTTI_SUBTYPE_METHOD_NAME, Naming.RTTI_SUBTYPE_METHOD_SIG); mv.visitJumpInsn(Opcodes.IFEQ, lookahead); //if false fail } //verify meets upper bounds Set<Type> concreteUB = concreteUpperBounds.get(sp); if (concreteUB != null) for (Type cub : concreteUB) { //transform into RTTI generateRTTIfromStaticType(mv, cub); mv.visitVarInsn(Opcodes.ALOAD, RTTItoUse); mv.visitMethodInsn(Opcodes.INVOKEVIRTUAL, Naming.RTTI_CONTAINER_TYPE, Naming.RTTI_SUBTYPE_METHOD_NAME, Naming.RTTI_SUBTYPE_METHOD_SIG); mv.visitJumpInsn(Opcodes.IFEQ, lookahead); //if false fail } //generate more bounds for generic upper bounds Set<Type> genericUB = genericUpperBounds.get(sp); if (genericUB != null) for (Type gub : genericUB) { TypeStructure newTS = makeTypeStructure(gub, staticTss, TypeStructure.COVARIANT, localCount, staticParams, null); localCount = newTS.successorIndex; mv.visitVarInsn(Opcodes.ALOAD, RTTItoUse); newTS.emitInstanceOf(mv, lookahead, false); //fail if RTTItoUse doesn't have this structure } //checks out, so store the RTTI we will use into the lower bound for this parameter mv.visitVarInsn(Opcodes.ALOAD, RTTItoUse); int index = lowerBounds.get(sp).localIndex; mv.visitVarInsn(Opcodes.ASTORE, index); } else if (contravariantInstances.size() == 0) { //we can do inference for covariant-only occurrences boolean started = false; if (covariantInstances.size() > 0) { started = true; mv.visitVarInsn(Opcodes.ALOAD, covariantInstances.get(0)); for (int k = 1; k < covariantInstances.size(); k++) { mv.visitVarInsn(Opcodes.ALOAD, covariantInstances.get(k)); //TODO: allow unions joinStackNoUnion(mv, lookahead); //fails if cannot join w/o union } } //incorporate lower bounds Set<StaticParam> relativeLB = relativeLowerBounds.get(sp); if (relativeLB != null) for (StaticParam lb : relativeLB) { mv.visitVarInsn(Opcodes.ALOAD, lowerBounds.get(lb).localIndex); if (started) { //join it in //TODO: allow unions joinStackNoUnion(mv, lookahead); } else { //start with this lower bound started = true; } } if (started) { //verify meets upper bounds Set<Type> concreteUB = concreteUpperBounds.get(sp); if (concreteUB != null) for (Type cub : concreteUB) { Label cleanup = new Label(); Label next = new Label(); mv.visitInsn(Opcodes.DUP); generateRTTIfromStaticType(mv, cub); //transform concrete bound into RTTI mv.visitInsn(Opcodes.SWAP); // LB <: CUB mv.visitMethodInsn(Opcodes.INVOKEVIRTUAL, Naming.RTTI_CONTAINER_TYPE, Naming.RTTI_SUBTYPE_METHOD_NAME, Naming.RTTI_SUBTYPE_METHOD_SIG); mv.visitJumpInsn(Opcodes.IFEQ, cleanup); mv.visitJumpInsn(Opcodes.GOTO, next); mv.visitLabel(cleanup); mv.visitInsn(Opcodes.POP); mv.visitJumpInsn(Opcodes.GOTO, lookahead); mv.visitLabel(next); } //checks out, so store to lower bound of sp int index = lowerBounds.get(sp).localIndex; mv.visitVarInsn(Opcodes.ASTORE, index); //generate more bounds for generic upper bounds Set<Type> genericUB = genericUpperBounds.get(sp); if (genericUB != null) for (Type gub : genericUB) { TypeStructure newTS = makeTypeStructure(gub, staticTss, TypeStructure.COVARIANT, localCount, staticParams, null); localCount = newTS.successorIndex; mv.visitVarInsn(Opcodes.ALOAD, index); newTS.emitInstanceOf(mv, lookahead, false); //fail if candidate doesn't have this structure } } else { //Bottom is ok - no need to check upper bounds //or generate lower bounds mv.visitFieldInsn(Opcodes.GETSTATIC, Naming.RT_VALUES_PKG + "VoidRTTI", Naming.RTTI_SINGLETON, Naming.RTTI_CONTAINER_DESC); int index = lowerBounds.get(sp).localIndex; mv.visitVarInsn(Opcodes.ASTORE, index); } } else { //otherwise, we might need to do inference which is not implemented yet throw new CompilerError("non-invariant inference with contravariance not implemented"); } } //load instance cache table to avoid classloader when possible String tableName = this.generateClosureTableName(specificDispatchOrder[i]); //use original function for table name String tableOwner = this.generateClosureTableOwner(f); mv.visitFieldInsn(Opcodes.GETSTATIC, tableOwner, tableName, Naming.CACHE_TABLE_DESC); //load template class name String arrow = this.instanceArrowSchema(f); //NamingCzar.makeArrowDescriptor(f.getParameters(), f.getReturnType(),f.tagA); String functionName = this.functionName(f); String templateClass = Naming.genericFunctionPkgClass(Naming.dotToSep(f.tagA.getText()), functionName, Naming.LEFT_OXFORD + Naming.RIGHT_OXFORD, arrow); if (otherOverloadKeys.contains(templateClass)) { templateClass = Naming.genericFunctionPkgClass(Naming.dotToSep(f.tagA.getText()), NamingCzar.mangleAwayFromOverload(functionName), Naming.LEFT_OXFORD + Naming.RIGHT_OXFORD, arrow); //templateClass = NamingCzar.mangleAwayFromOverload(templateClass); } mv.visitLdcInsn(templateClass); String ic_sig; if (staticParams.size() > 6) { //use an array //load the function: RThelpers.loadClosureClass:(BAlongTree,String,RTTI[]) String paramList = Naming.CACHE_TABLE_DESC + NamingCzar.descString + Naming.RTTI_CONTAINER_ARRAY_DESC; ic_sig = Naming.makeMethodDesc(paramList, Naming.internalToDesc(NamingCzar.internalObject)); mv.visitLdcInsn(staticParams.size()); mv.visitTypeInsn(Opcodes.ANEWARRAY, Naming.RTTI_CONTAINER_TYPE); //dup array enough times to store RTTIs into it //know need at least 6 more mv.visitInsn(Opcodes.DUP); //first one to get arrays as top two elts on stack for (int numDups = staticParams.size() - 1; numDups > 0; numDups = numDups / 2) mv.visitInsn(Opcodes.DUP2); if (staticParams.size() % 2 == 0) mv.visitInsn(Opcodes.DUP); //if even, started halving with an odd number, so needs one last //store parameters into array for (int k = 0; k < staticParams.size(); k++) { int index = lowerBounds.get(staticParams.get(k)).localIndex; mv.visitLdcInsn(k); //index is the static param number mv.visitVarInsn(Opcodes.ALOAD, index); mv.visitInsn(Opcodes.AASTORE); } //array left on stack } else { //load the function: RTHelpers.loadClosureClass:(BAlongTree,(String,RTTI)^n)Object ic_sig = InstantiatingClassloader.jvmSignatureForOnePlusNTypes( Naming.CACHE_TABLE_TYPE + ";L" + NamingCzar.internalString, staticParams.size(), Naming.RTTI_CONTAINER_TYPE, Naming.internalToDesc(NamingCzar.internalObject)); //load parameter RTTIs for (int k = 0; k < staticParams.size(); k++) { int index = lowerBounds.get(staticParams.get(k)).localIndex; mv.visitVarInsn(Opcodes.ALOAD, index); } } mv.visitMethodInsn(Opcodes.INVOKESTATIC, Naming.RT_HELPERS, "loadClosureClass", ic_sig); //cast to object arrow int numParams = f.getParameters().size(); String objectAbstractArrow = NamingCzar.objectAbstractArrowTypeForNParams(numParams); InstantiatingClassloader.generalizedCastTo(mv, objectAbstractArrow); //if a method parameters converted //loadThisForMethods(mv); //load parameters for (int j = 0; j < f_type_structures.length; j++) { // Load actual parameter if (j != selfIndex()) { mv.visitVarInsn(Opcodes.ALOAD, j); // DRC back this out+ one_if_method_closure); // + firstArgIndex); KBN if a method, parameters already converted //no cast needed here - done by apply method } } //call apply method String objectArrow = NamingCzar.objectArrowTypeForNParams(numParams); String applySig = InstantiatingClassloader.jvmSignatureForNTypes(numParams, NamingCzar.internalObject, Naming.internalToDesc(NamingCzar.internalObject)); mv.visitMethodInsn(Opcodes.INVOKEINTERFACE, objectArrow, Naming.APPLY_METHOD, applySig); //cast to correct return type Type f_return = f.getReturnType(); if (f_return instanceof BottomType) { CodeGen.castToBottom(mv); } else { String returnType = NamingCzar.makeBoxedTypeName(f_return, f.tagA); InstantiatingClassloader.generalizedCastTo(mv, returnType); } } else { //no inferences needed loadThisForMethods(mv); for (int j = 0; j < f_type_structures.length; j++) { // Load actual parameter if (j != selfIndex()) { mv.visitVarInsn(Opcodes.ALOAD, j + firstArgIndex); InstantiatingClassloader.generalizedCastTo(mv, f_type_structures[j].fullname); } } String sig = jvmSignatureFor(f); invokeParticularMethod(mv, f, sig); Type f_return = f.getReturnType(); if (f_return instanceof BottomType) { CodeGen.castToBottom(mv); } } mv.visitInsn(Opcodes.ARETURN); if (lookahead != null) mv.visitLabel(lookahead); } }
From source file:com.sun.fortress.compiler.OverloadSet.java
License:Open Source License
private void generateRTTIfromStaticType(MethodVisitor mv, Type t) { if (t instanceof TraitType) { List<StaticArg> args = ((TraitType) t).getArgs(); if (args != null && args.size() > 0) { //recurse for (StaticArg sa : args) { if (sa instanceof TypeArg) { generateRTTIfromStaticType(mv, ((TypeArg) sa).getTypeArg()); } else { throw new CompilerError("Expected TypeArg for RTTI generation"); }/*from w w w .j ava 2 s .co m*/ } //find component for type and call factory String typeName = NamingCzar.jvmTypeDesc(t, this.ifNone, false); mv.visitMethodInsn(Opcodes.INVOKESTATIC, typeName + Naming.RTTI_CLASS_SUFFIX, Naming.RTTI_FACTORY, Naming.rttiFactorySig(args.size())); } else { //find component for type and grab singleton RTTI String typeName = NamingCzar.jvmTypeDesc(t, this.ifNone, false); mv.visitFieldInsn(Opcodes.GETSTATIC, typeName + Naming.RTTI_CLASS_SUFFIX, Naming.RTTI_SINGLETON, Naming.RTTI_CONTAINER_DESC); } } else { throw new CompilerError("Expected Trait Type for RTTI generation"); } }
From source file:com.sun.fortress.compiler.OverloadSet.java
License:Open Source License
protected void generateBody(MethodVisitor mv, int one_if_method_closure) { mv.visitCode();/*from w ww . ja v a 2 s.c om*/ // Label fail = new Label(); generateCall(mv, firstArg(), one_if_method_closure); // Guts of overloaded method // Emit failure case // mv.visitLabel(fail); // // Boilerplate for throwing an error. // // mv.visitFrame(Opcodes.F_SAME, 0, null, 0, null); mv.visitMethodInsn(Opcodes.INVOKESTATIC, NamingCzar.miscCodegen, NamingCzar.matchFailure, NamingCzar.errorReturn); mv.visitInsn(Opcodes.ATHROW); mv.visitMaxs(getParamCount(), getParamCount()); // autocomputed mv.visitEnd(); }
From source file:com.sun.fortress.runtimeSystem.FValueHandle.java
License:Open Source License
public void checkValue(FValue val) { mv.visitLdcInsn(val); mv.visitMethodInsn(Opcodes.INVOKESTATIC, "com.sun.fortress.runtimeSystem.TransactionRecord", "checkValue", "(Lcom.sun.fortress.compiler.runtimeValues.FValue;Lcom.sun.fortress.compiler.runtimeValues.FValue;)()"); }
From source file:com.sun.fortress.runtimeSystem.Instantiater.java
License:Open Source License
@Override public MethodVisitor visitMethod(int access, String name, String desc, String signature, String[] exceptions) { // necessary? name = oprs.getMethodName(name);//from ww w . ja va 2 s. c om //System.out.println("old desc=" + desc); //desc = types.getMethodDesc(desc); //System.out.println("new desc=" + desc); String newDesc = types.getMethodDesc(desc); MethodVisitor mv = cv.visitMethod(access, name, newDesc, signature, exceptions); if (!desc.equals(newDesc)) { // catch flattened tuples String params = desc.substring(desc.indexOf("(") + 1, //TODO: wrong if nested parens desc.indexOf(")")); String newParams = newDesc.substring(newDesc.indexOf("(") + 1, newDesc.indexOf(")")); if (params.split(";").length == 1 && //single generic parameter newParams.startsWith("LTuple")) { //tuple substituted in //System.out.println(access + " " + name + " " + signature + " " +this.instanceName); if ((this.access_flags & Opcodes.ACC_INTERFACE) == 0 && //not in an interface (access & Opcodes.ACC_STATIC) == 0) { //and not a static method, so generate a body //extract the parameters and create strings for the types List<String> paramList = InstantiationMap.extractStringParameters(newParams, newParams.indexOf(Naming.LEFT_OXFORD), InstantiationMap.templateClosingRightOxford(newParams), new ArrayList<String>()); String rawParams = ""; for (String p : paramList) rawParams = rawParams + Naming.internalToDesc(p); final String altDesc = newDesc.substring(0, newDesc.indexOf("(") + 1) + rawParams + newDesc.substring(newDesc.indexOf(")"), newDesc.length()); String tuple_params = InstantiatingClassloader.stringListToTuple(paramList); String make_sig = InstantiatingClassloader.toJvmSig(paramList, Naming.javaDescForTaggedFortressType(tuple_params)); MethodVisitor altMv = cv.visitMethod(access, name, altDesc, signature, exceptions); altMv.visitVarInsn(Opcodes.ALOAD, 0); //load this final int n = paramList.size(); //load the parameters for (int i = 1; i <= n; i++) { altMv.visitVarInsn(Opcodes.ALOAD, i); } altMv.visitMethodInsn(Opcodes.INVOKESTATIC, InstantiatingClassloader.CONCRETE_ + tuple_params, "make", make_sig); //create a tuple from the parameters if (name.equals("<init>")) { altMv.visitMethodInsn(Opcodes.INVOKESPECIAL, this.instanceName, name, newDesc); //call original method altMv.visitInsn(Opcodes.RETURN); //return } else { altMv.visitMethodInsn(Opcodes.INVOKEVIRTUAL, this.instanceName, name, newDesc); //call original method altMv.visitInsn(Opcodes.ARETURN); //return } altMv.visitMaxs(Naming.ignoredMaxsParameter, Naming.ignoredMaxsParameter); altMv.visitEnd(); } } } return new MethodInstantiater(mv, types, icl); }
From source file:com.sun.fortress.runtimeSystem.InstantiatingClassloader.java
License:Open Source License
private byte[] instantiateAbstractArrow(String name, List<String> parameters) { ManglingClassWriter cw = new ManglingClassWriter(ClassWriter.COMPUTE_MAXS | ClassWriter.COMPUTE_FRAMES); /*/*ww w .j a va2 s. com*/ * Special case extensions to plumb tuples * correctly in the face of generics instantiated * with tuple types. * * Except, recall that Arrow parameters are domain...;range * * if > 1 param then * unwrap = params * wrap = tuple params * else 1 param * if tuple * wrap = param * unwrap = untuple params * else * unwrap = param * wrap = null * * Use unwrapped parameters to generate the all-Objects case * for casting; check the generated signature against the input * to see if we are them. * */ Triple<List<String>, List<String>, String> stuff = normalizeArrowParameters(parameters); List<String> flat_params_and_ret = stuff.getA(); List<String> tupled_params_and_ret = stuff.getB(); String tupleType = stuff.getC(); List<String> flat_obj_params_and_ret = Useful.applyToAll(flat_params_and_ret, toJLO); List<String> norm_obj_params_and_ret = normalizeArrowParametersAndReturn(flat_obj_params_and_ret); List<String> norm_params_and_ret = normalizeArrowParametersAndReturn(flat_params_and_ret); String obj_sig = stringListToGeneric(ABSTRACT_ARROW, norm_obj_params_and_ret); String obj_intf_sig = stringListToGeneric(Naming.ARROW_TAG, norm_obj_params_and_ret); String wrapped_sig = stringListToGeneric(WRAPPED_ARROW, norm_params_and_ret); String typed_intf_sig = stringListToGeneric(Naming.ARROW_TAG, norm_params_and_ret); String unwrapped_apply_sig; if (parameters.size() == 2 && parameters.get(0).equals(Naming.INTERNAL_SNOWMAN)) unwrapped_apply_sig = arrowParamsToJVMsig(parameters.subList(1, 2)); else unwrapped_apply_sig = arrowParamsToJVMsig(flat_params_and_ret); String obj_apply_sig = arrowParamsToJVMsig(flat_obj_params_and_ret); String[] interfaces = new String[] { stringListToArrow(norm_params_and_ret) }; /* * Note that in the case of foo -> bar, * normalized = flattened, and tupled does not exist (is null). */ String typed_tupled_intf_sig = tupled_params_and_ret == null ? null : stringListToGeneric(Naming.ARROW_TAG, tupled_params_and_ret); String objectified_tupled_intf_sig = tupled_params_and_ret == null ? null : stringListToGeneric(Naming.ARROW_TAG, Useful.applyToAll(tupled_params_and_ret, toJLO)); boolean is_all_objects = norm_obj_params_and_ret.equals(norm_params_and_ret); String _super = is_all_objects ? "java/lang/Object" : obj_sig; cw.visit(JVM_BYTECODE_VERSION, ACC_PUBLIC + ACC_SUPER + ACC_ABSTRACT, name, null, _super, interfaces); simpleInitMethod(cw, _super); /* */ if (!is_all_objects) { // implement method for the object version. // cast parameters, invoke this.apply on cast parameters, ARETURN // note cut and paste from apply below, work in progress. MethodVisitor mv = cw.visitMethod(ACC_PUBLIC, Naming.APPLY_METHOD, obj_apply_sig, null, null); mv.visitVarInsn(Opcodes.ALOAD, 0); // this int unwrapped_l = flat_params_and_ret.size(); for (int i = 0; i < unwrapped_l - 1; i++) { String t = flat_params_and_ret.get(i); if (!t.equals(Naming.INTERNAL_SNOWMAN) || unwrapped_l > 2) { mv.visitVarInsn(Opcodes.ALOAD, i + 1); // element // mv.visitTypeInsn(CHECKCAST, t); generalizedCastTo(mv, Naming.internalToType(t)); } } mv.visitMethodInsn(INVOKEVIRTUAL, name, Naming.APPLY_METHOD, unwrapped_apply_sig); mv.visitInsn(Opcodes.ARETURN); mv.visitMaxs(Naming.ignoredMaxsParameter, Naming.ignoredMaxsParameter); mv.visitEnd(); } // is instance method -- takes an Object { String sig = "(Ljava/lang/Object;)Z"; MethodVisitor mv = cw.visitMethod(Opcodes.ACC_PUBLIC + Opcodes.ACC_STATIC, IS_A, sig, null, null); Label fail = new Label(); mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitTypeInsn(Opcodes.INSTANCEOF, Naming.ANY_TYPE_CLASS); mv.visitJumpInsn(Opcodes.IFEQ, fail); mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitTypeInsn(Opcodes.CHECKCAST, Naming.ANY_TYPE_CLASS); mv.visitMethodInsn(Opcodes.INVOKESTATIC, name, IS_A, "(" + Naming.internalToDesc(Naming.ANY_TYPE_CLASS) + ")Z"); mv.visitInsn(Opcodes.IRETURN); mv.visitLabel(fail); mv.visitIntInsn(BIPUSH, 0); mv.visitInsn(Opcodes.IRETURN); mv.visitMaxs(Naming.ignoredMaxsParameter, Naming.ignoredMaxsParameter); mv.visitEnd(); } // is instance method -- takes an Any { String sig = "(" + Naming.internalToDesc(Naming.ANY_TYPE_CLASS) + ")Z"; MethodVisitor mv = cw.visitMethod(Opcodes.ACC_PUBLIC + Opcodes.ACC_STATIC, IS_A, sig, null, null); Label fail = new Label(); //get RTTI to compare to mv.visitFieldInsn(GETSTATIC, name, Naming.RTTI_FIELD, Naming.RTTI_CONTAINER_DESC); //get RTTI of object mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitMethodInsn(INVOKEINTERFACE, Naming.ANY_TYPE_CLASS, Naming.RTTI_GETTER, "()" + Naming.RTTI_CONTAINER_DESC); // mv.visitJumpInsn(IFNONNULL, fail); mv.visitMethodInsn(INVOKEVIRTUAL, Naming.RTTI_CONTAINER_TYPE, Naming.RTTI_SUBTYPE_METHOD_NAME, Naming.RTTI_SUBTYPE_METHOD_SIG); //mv.visitIntInsn(BIPUSH, 0); mv.visitJumpInsn(Opcodes.IFEQ, fail); mv.visitIntInsn(BIPUSH, 1); mv.visitInsn(Opcodes.IRETURN); mv.visitLabel(fail); mv.visitIntInsn(BIPUSH, 0); mv.visitInsn(Opcodes.IRETURN); mv.visitMaxs(Naming.ignoredMaxsParameter, Naming.ignoredMaxsParameter); mv.visitEnd(); } // castTo { /* * If arg0 instanceof typed_intf_sig * return arg0 * arg0 = arg0.getWrappee() * if arg0 instanceof typed_intf_sig * return arg0 * new WrappedArrow * dup * push argo * init * return tos */ MethodVisitor mv = cw.visitMethod(ACC_PUBLIC + ACC_STATIC, CAST_TO, "(" + // Naming.internalToDesc(obj_intf_sig) "Ljava/lang/Object;" + ")" + Naming.internalToDesc(typed_intf_sig), null, null); Label not_instance1 = new Label(); Label not_instance2 = new Label(); // try bare instanceof mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitTypeInsn(Opcodes.INSTANCEOF, typed_intf_sig); mv.visitJumpInsn(Opcodes.IFEQ, not_instance1); mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitTypeInsn(Opcodes.CHECKCAST, typed_intf_sig); mv.visitInsn(Opcodes.ARETURN); // unwrap mv.visitLabel(not_instance1); mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitTypeInsn(Opcodes.CHECKCAST, obj_intf_sig); mv.visitMethodInsn(INVOKEINTERFACE, obj_intf_sig, getWrappee, "()" + Naming.internalToDesc(obj_intf_sig)); mv.visitVarInsn(Opcodes.ASTORE, 0); // try instanceof on unwrapped mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitTypeInsn(Opcodes.INSTANCEOF, typed_intf_sig); mv.visitJumpInsn(Opcodes.IFEQ, not_instance2); mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitTypeInsn(Opcodes.CHECKCAST, typed_intf_sig); mv.visitInsn(Opcodes.ARETURN); // wrap and return mv.visitLabel(not_instance2); mv.visitTypeInsn(NEW, wrapped_sig); mv.visitInsn(DUP); mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitMethodInsn(INVOKESPECIAL, wrapped_sig, "<init>", "(" + Naming.internalToDesc(obj_intf_sig) + ")V"); mv.visitInsn(Opcodes.ARETURN); mv.visitMaxs(Naming.ignoredMaxsParameter, Naming.ignoredMaxsParameter); mv.visitEnd(); } if (typed_tupled_intf_sig != null) { /* * If arg0 instanceof typed_intf_sig * return arg0 * arg0 = arg0.getWrappee() * if arg0 instanceof typed_intf_sig * return arg0 * new WrappedArrow * dup * push argo * init * return tos */ MethodVisitor mv = cw.visitMethod(ACC_PUBLIC + ACC_STATIC, CAST_TO, "(" + Naming.internalToDesc(objectified_tupled_intf_sig) + ")" + Naming.internalToDesc(typed_intf_sig), null, null); Label not_instance1 = new Label(); Label not_instance2 = new Label(); // try bare instanceof mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitTypeInsn(Opcodes.INSTANCEOF, typed_intf_sig); mv.visitJumpInsn(Opcodes.IFEQ, not_instance1); mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitInsn(Opcodes.ARETURN); // unwrap mv.visitLabel(not_instance1); mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitMethodInsn(INVOKEINTERFACE, objectified_tupled_intf_sig, getWrappee, "()" + Naming.internalToDesc(objectified_tupled_intf_sig)); mv.visitVarInsn(Opcodes.ASTORE, 0); // try instanceof on unwrapped mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitTypeInsn(Opcodes.INSTANCEOF, typed_intf_sig); mv.visitJumpInsn(Opcodes.IFEQ, not_instance2); mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitInsn(Opcodes.ARETURN); // wrap and return - untupled should be okay here, since it subtypes mv.visitLabel(not_instance2); mv.visitTypeInsn(NEW, wrapped_sig); mv.visitInsn(DUP); mv.visitVarInsn(Opcodes.ALOAD, 0); mv.visitMethodInsn(INVOKESPECIAL, wrapped_sig, "<init>", "(" + Naming.internalToDesc(obj_intf_sig) + ")V"); mv.visitInsn(Opcodes.ARETURN); mv.visitMaxs(Naming.ignoredMaxsParameter, Naming.ignoredMaxsParameter); mv.visitEnd(); } // getWrappee { MethodVisitor mv = cw.visitMethod(ACC_PUBLIC, getWrappee, "()" + Naming.internalToDesc(obj_intf_sig), null, null); mv.visitCode(); mv.visitVarInsn(ALOAD, 0); mv.visitInsn(ARETURN); mv.visitMaxs(1, 1); mv.visitEnd(); // return this } if (tupled_params_and_ret == null) { /* Single abstract method */ if (LOG_LOADS) System.err.println(name + ".apply" + unwrapped_apply_sig + " abstract for abstract"); MethodVisitor mv = cw.visitMethod(ACC_PUBLIC + ACC_ABSTRACT, Naming.APPLY_METHOD, unwrapped_apply_sig, null, null); mv.visitEnd(); } else { /* * Establish two circular forwarding methods; * the eventual implementer will break the cycle. * */ String tupled_apply_sig = arrowParamsToJVMsig(tupled_params_and_ret); { /* Given tupled args, extract, and invoke apply. */ if (LOG_LOADS) System.err.println(name + ".apply" + tupled_apply_sig + " abstract for abstract"); MethodVisitor mv = cw.visitMethod(ACC_PUBLIC, Naming.APPLY_METHOD, tupled_apply_sig, null, null); mv.visitVarInsn(Opcodes.ALOAD, 0); // closure int unwrapped_l = flat_params_and_ret.size(); for (int i = 0; i < unwrapped_l - 1; i++) { String param = flat_params_and_ret.get(i); mv.visitVarInsn(Opcodes.ALOAD, 1); // tuple mv.visitMethodInsn(INVOKEINTERFACE, tupleType, TUPLE_TYPED_ELT_PFX + (Naming.TUPLE_ORIGIN + i), "()" + Naming.internalToDesc(param)); } mv.visitMethodInsn(INVOKEVIRTUAL, name, Naming.APPLY_METHOD, unwrapped_apply_sig); mv.visitInsn(Opcodes.ARETURN); mv.visitMaxs(Naming.ignoredMaxsParameter, Naming.ignoredMaxsParameter); mv.visitEnd(); } { /* Given untupled args, load, make a tuple, invoke apply. */ if (LOG_LOADS) System.err.println(name + ".apply" + unwrapped_apply_sig + " abstract for abstract"); MethodVisitor mv = cw.visitMethod(ACC_PUBLIC, Naming.APPLY_METHOD, unwrapped_apply_sig, null, null); mv.visitVarInsn(Opcodes.ALOAD, 0); // closure int unwrapped_l = flat_params_and_ret.size(); for (int i = 0; i < unwrapped_l - 1; i++) { mv.visitVarInsn(Opcodes.ALOAD, i + 1); // element } List<String> tuple_elements = flat_params_and_ret.subList(0, unwrapped_l - 1); String make_sig = toJvmSig(tuple_elements, Naming.javaDescForTaggedFortressType(tupleType)); mv.visitMethodInsn(INVOKESTATIC, stringListToGeneric(CONCRETE_TUPLE, tuple_elements), "make", make_sig); mv.visitMethodInsn(INVOKEVIRTUAL, name, Naming.APPLY_METHOD, tupled_apply_sig); mv.visitInsn(Opcodes.ARETURN); mv.visitMaxs(Naming.ignoredMaxsParameter, Naming.ignoredMaxsParameter); mv.visitEnd(); } } //RTTI comparison field final String final_name = name; ArrayList<InitializedStaticField> isf_list = new ArrayList<InitializedStaticField>(); if (!parameters.contains("java/lang/Object")) { isf_list.add(new InitializedStaticField.StaticForUsualRttiField(final_name, this)); } else { isf_list.add(new InitializedStaticField.StaticForJLOParameterizedRttiField(final_name)); } cw.visitEnd(); // //RTTI getter { MethodVisitor mv = cw.visitMethod(ACC_PUBLIC, Naming.RTTI_GETTER, "()" + Naming.RTTI_CONTAINER_DESC, null, null); mv.visitCode(); mv.visitFieldInsn(GETSTATIC, name, Naming.RTTI_FIELD, Naming.RTTI_CONTAINER_DESC); mv.visitInsn(ARETURN); mv.visitMaxs(1, 1); mv.visitEnd(); } optionalStaticsAndClassInitForTO(isf_list, cw); return cw.toByteArray(); }