use of org.eclipse.ceylon.langtools.tools.javac.util.List in project ceylon by eclipse.
the class AbstractTransformer method makeReifiedTypeArgumentResolved.
private JCExpression makeReifiedTypeArgumentResolved(Type pt, boolean qualified, TypeArgumentAccessor typeArgumentAccessor, boolean wantsRaw) {
if (pt.isUnion()) {
// FIXME: refactor this shite
List<JCExpression> typeTestArguments = List.nil();
java.util.List<Type> typeParameters = pt.getCaseTypes();
if (typeParameters.size() == 2) {
Type alternative = null;
if (typeParameters.get(0).isEmpty())
alternative = typeParameters.get(1);
else if (typeParameters.get(1).isEmpty())
alternative = typeParameters.get(0);
if (alternative != null && alternative.isTuple()) {
JCExpression tupleType = makeTupleTypeDescriptor(alternative, true);
if (tupleType != null)
return tupleType;
}
}
for (int i = typeParameters.size() - 1; i >= 0; i--) {
typeTestArguments = typeTestArguments.prepend(makeReifiedTypeArgument(typeParameters.get(i)));
}
return make().Apply(null, makeSelect(makeTypeDescriptorType(), "union"), typeTestArguments);
} else if (pt.isIntersection()) {
List<JCExpression> typeTestArguments = List.nil();
java.util.List<Type> typeParameters = pt.getSatisfiedTypes();
for (int i = typeParameters.size() - 1; i >= 0; i--) {
typeTestArguments = typeTestArguments.prepend(makeReifiedTypeArgument(typeParameters.get(i)));
}
return make().Apply(null, makeSelect(makeTypeDescriptorType(), "intersection"), typeTestArguments);
} else if (pt.isNothing()) {
return makeNothingTypeDescriptor();
}
TypeDeclaration declaration = pt.getDeclaration();
if (declaration instanceof Constructor) {
pt = pt.getExtendedType();
declaration = pt.getDeclaration();
}
if (pt.isClassOrInterface()) {
// see if we have an alias for it
if (supportsReifiedAlias((ClassOrInterface) declaration)) {
JCExpression qualifier = naming.makeDeclarationName(declaration, DeclNameFlag.QUALIFIED);
return makeSelect(qualifier, naming.getTypeDescriptorAliasName());
}
if (pt.isTuple()) {
JCExpression tupleType = makeTupleTypeDescriptor(pt, false);
if (tupleType != null)
return tupleType;
}
// no alias, must build it
List<JCExpression> typeTestArguments;
JCExpression thisType = makeUnerasedClassLiteral(declaration);
if (!wantsRaw) {
typeTestArguments = makeReifiedTypeArgumentsResolved(pt.getTypeArgumentList(), qualified, typeArgumentAccessor);
// do we have variance overrides?
Map<TypeParameter, SiteVariance> varianceOverrides = pt.getVarianceOverrides();
if (!varianceOverrides.isEmpty()) {
// we need to pass them as second argument then, in an array
ListBuffer<JCExpression> varianceElements = new ListBuffer<JCExpression>();
for (TypeParameter typeParameter : declaration.getTypeParameters()) {
SiteVariance useSiteVariance = varianceOverrides.get(typeParameter);
String selector;
if (useSiteVariance != null) {
switch(useSiteVariance) {
case IN:
selector = "IN";
break;
case OUT:
selector = "OUT";
break;
default:
selector = "NONE";
break;
}
} else {
selector = "NONE";
}
JCExpression varianceElement = make().Select(makeIdent(syms().ceylonVarianceType), names().fromString(selector));
varianceElements.append(varianceElement);
}
JCNewArray varianceArray = make().NewArray(makeIdent(syms().ceylonVarianceType), List.<JCExpression>nil(), varianceElements.toList());
typeTestArguments = typeTestArguments.prepend(varianceArray);
}
} else {
typeTestArguments = List.nil();
}
typeTestArguments = typeTestArguments.prepend(thisType);
JCExpression classDescriptor = make().Apply(null, makeSelect(makeTypeDescriptorType(), "klass"), typeTestArguments);
Type qualifyingType = pt.getQualifyingType();
JCExpression containerType = null;
if (qualifyingType == null) {
// it may be contained in a function or value, and we want its type
// or static class members may have no qualifying type but we want the TDs to treat
// them as members anyway
Declaration enclosingDeclaration = getDeclarationContainer(declaration);
if (enclosingDeclaration instanceof TypedDeclaration)
containerType = makeTypedDeclarationTypeDescriptorResolved((TypedDeclaration) enclosingDeclaration, typeArgumentAccessor);
else if (enclosingDeclaration instanceof TypeDeclaration) {
qualifyingType = ((TypeDeclaration) enclosingDeclaration).getType();
}
}
if (qualifyingType != null && qualifyingType.isConstructor()) {
qualifyingType = qualifyingType.getQualifyingType();
}
if (qualifyingType != null) {
if (declaration.isStatic() && supportsReified(declaration)) {
// There is no outer instance with a $reified$T field
final Type t = pt;
containerType = makeReifiedTypeArgumentResolved(qualifyingType, true, new TypeArgumentAccessor() {
public JCExpression getTypeDescriptor(TypeParameter tp, boolean qualified) {
return makeSelect(naming.makeQualifiedThis(makeJavaType(t, JT_RAW)), naming.getTypeArgumentDescriptorName(tp));
}
}, false);
} else {
containerType = makeReifiedTypeArgumentResolved(qualifyingType, true, typeArgumentAccessor, // we want raw containers, since we can't capture their TPs
declaration.isStatic());
}
}
if (containerType == null) {
return classDescriptor;
} else {
return make().Apply(null, makeSelect(makeTypeDescriptorType(), "member"), List.of(containerType, classDescriptor));
}
} else if (pt.isTypeParameter()) {
return typeArgumentAccessor.getTypeDescriptor((TypeParameter) declaration, qualified);
} else {
throw BugException.unhandledDeclarationCase(declaration);
}
}
use of org.eclipse.ceylon.langtools.tools.javac.util.List in project ceylon by eclipse.
the class ClassTransformer method transformRefinementSpecifierStatement.
public List<JCStatement> transformRefinementSpecifierStatement(SpecifierStatement op, ClassDefinitionBuilder classBuilder) {
List<JCStatement> result = List.<JCStatement>nil();
// Check if this is a shortcut form of formal attribute refinement
if (op.getRefinement()) {
Tree.Term baseMemberTerm = op.getBaseMemberExpression();
if (baseMemberTerm instanceof Tree.ParameterizedExpression)
baseMemberTerm = ((Tree.ParameterizedExpression) baseMemberTerm).getPrimary();
Tree.BaseMemberExpression expr = (BaseMemberExpression) baseMemberTerm;
Declaration decl = expr.getDeclaration();
if (Decl.isValue(decl) || Decl.isGetter(decl)) {
// Now build a "fake" declaration for the attribute
Tree.AttributeDeclaration attrDecl = new Tree.AttributeDeclaration(null);
attrDecl.setDeclarationModel((Value) decl);
attrDecl.setIdentifier(expr.getIdentifier());
attrDecl.setScope(op.getScope());
attrDecl.setSpecifierOrInitializerExpression(op.getSpecifierExpression());
attrDecl.setAnnotationList(makeShortcutRefinementAnnotationTrees());
// Make sure the boxing information is set correctly
BoxingDeclarationVisitor v = new CompilerBoxingDeclarationVisitor(this);
v.visit(attrDecl);
// Generate the attribute
transform(attrDecl, classBuilder);
} else if (decl instanceof Function) {
// Now build a "fake" declaration for the method
Tree.MethodDeclaration methDecl = new Tree.MethodDeclaration(null);
Function m = (Function) decl;
methDecl.setDeclarationModel(m);
methDecl.setIdentifier(expr.getIdentifier());
methDecl.setScope(op.getScope());
methDecl.setAnnotationList(makeShortcutRefinementAnnotationTrees());
Tree.SpecifierExpression specifierExpression = op.getSpecifierExpression();
methDecl.setSpecifierExpression(specifierExpression);
if (specifierExpression instanceof Tree.LazySpecifierExpression == false) {
Tree.Expression expression = specifierExpression.getExpression();
Tree.Term expressionTerm = Decl.unwrapExpressionsUntilTerm(expression);
// we can optimise lambdas and static method calls
if (!CodegenUtil.canOptimiseMethodSpecifier(expressionTerm, m)) {
// we need a field to save the callable value
String name = naming.getMethodSpecifierAttributeName(m);
JCExpression specifierType = makeJavaType(expression.getTypeModel());
JCExpression specifier = expressionGen().transformExpression(expression);
classBuilder.field(PRIVATE | FINAL, name, specifierType, specifier, false);
}
}
java.util.List<Tree.ParameterList> parameterListTrees = null;
if (op.getBaseMemberExpression() instanceof Tree.ParameterizedExpression) {
parameterListTrees = new ArrayList<>(m.getParameterLists().size());
parameterListTrees.addAll(((Tree.ParameterizedExpression) op.getBaseMemberExpression()).getParameterLists());
Tree.Term term = specifierExpression.getExpression().getTerm();
// and give it the given block of expr as it's specifier
while (term instanceof Tree.FunctionArgument && m.getParameterLists().size() > 1) {
FunctionArgument functionArgument = (Tree.FunctionArgument) term;
specifierExpression.setExpression(functionArgument.getExpression());
parameterListTrees.addAll(functionArgument.getParameterLists());
term = functionArgument.getExpression().getTerm();
}
}
int plIndex = 0;
// copy from formal declaration
for (ParameterList pl : m.getParameterLists()) {
Tree.ParameterList parameterListTree = null;
if (parameterListTrees != null)
parameterListTree = parameterListTrees.get(plIndex++);
Tree.ParameterList tpl = new Tree.ParameterList(null);
tpl.setModel(pl);
int pIndex = 0;
for (Parameter p : pl.getParameters()) {
Tree.Parameter parameterTree = null;
if (parameterListTree != null)
parameterTree = parameterListTree.getParameters().get(pIndex++);
Tree.Parameter tp = null;
if (p.getModel() instanceof Value) {
Tree.ValueParameterDeclaration tvpd = new Tree.ValueParameterDeclaration(null);
if (parameterTree != null)
tvpd.setTypedDeclaration(((Tree.ParameterDeclaration) parameterTree).getTypedDeclaration());
tvpd.setParameterModel(p);
tp = tvpd;
} else if (p.getModel() instanceof Function) {
Tree.FunctionalParameterDeclaration tfpd = new Tree.FunctionalParameterDeclaration(null);
if (parameterTree != null)
tfpd.setTypedDeclaration(((Tree.ParameterDeclaration) parameterTree).getTypedDeclaration());
tfpd.setParameterModel(p);
tp = tfpd;
} else {
throw BugException.unhandledDeclarationCase(p.getModel());
}
tp.setScope(p.getDeclaration().getContainer());
// tp.setIdentifier(makeIdentifier(p.getName()));
tpl.addParameter(tp);
}
methDecl.addParameterList(tpl);
}
// Make sure the boxing information is set correctly
BoxingDeclarationVisitor v = new CompilerBoxingDeclarationVisitor(this);
v.visit(methDecl);
// Generate the method
classBuilder.method(methDecl, Errors.GENERATE);
}
} else {
// Normal case, just generate the specifier statement
result = result.append(expressionGen().transform(op));
}
Tree.Term term = op.getBaseMemberExpression();
if (term instanceof Tree.BaseMemberExpression) {
Tree.BaseMemberExpression bme = (Tree.BaseMemberExpression) term;
DeferredSpecification ds = statementGen().getDeferredSpecification(bme.getDeclaration());
if (ds != null && needsInnerSubstitution(term.getScope(), bme.getDeclaration())) {
result = result.append(ds.openInnerSubstitution());
}
}
return result;
}
use of org.eclipse.ceylon.langtools.tools.javac.util.List in project ceylon by eclipse.
the class ClassTransformer method transformClassOrCtorParameters.
private void transformClassOrCtorParameters(Tree.AnyClass def, Class cls, Constructor constructor, Tree.Declaration node, Tree.ParameterList paramList, boolean delegationConstructor, ClassDefinitionBuilder classBuilder, ParameterizedBuilder<?> constructorBuilder, boolean generateInstantiator, ClassDefinitionBuilder instantiatorDeclCb, ClassDefinitionBuilder instantiatorImplCb) {
for (final Tree.Parameter param : paramList.getParameters()) {
// Overloaded instantiators
Parameter paramModel = param.getParameterModel();
Parameter refinedParam = CodegenUtil.findParamForDecl((TypedDeclaration) CodegenUtil.getTopmostRefinedDeclaration(param.getParameterModel().getModel()));
at(param);
Tree.TypedDeclaration member = def != null ? Decl.getMemberDeclaration(def, param) : null;
// transform the parameter and its annotations
transformParameter(constructorBuilder, param, paramModel, member);
if (Strategy.hasDefaultParameterValueMethod(paramModel) || Strategy.hasDefaultParameterOverload(paramModel) || (generateInstantiator && refinedParam != null && (Strategy.hasDefaultParameterValueMethod(refinedParam) || Strategy.hasDefaultParameterOverload(refinedParam)))) {
ClassDefinitionBuilder cbForDevaultValues;
ClassDefinitionBuilder cbForDevaultValuesDecls = null;
switch(Strategy.defaultParameterMethodOwner(constructor != null ? constructor : cls)) {
case STATIC:
cbForDevaultValues = classBuilder;
break;
case OUTER:
cbForDevaultValues = classBuilder.getContainingClassBuilder();
break;
case OUTER_COMPANION:
cbForDevaultValues = classBuilder.getContainingClassBuilder().getCompanionBuilder(ModelUtil.getClassOrInterfaceContainer(cls, true));
if ((constructor == null || constructor.isShared()) && cls.isShared()) {
cbForDevaultValuesDecls = classBuilder.getContainingClassBuilder();
}
break;
default:
cbForDevaultValues = classBuilder.getCompanionBuilder(cls);
}
if (!delegationConstructor) {
if ((Strategy.hasDefaultParameterValueMethod(paramModel) || (refinedParam != null && Strategy.hasDefaultParameterValueMethod(refinedParam)))) {
if (!generateInstantiator || Decl.equal(refinedParam, paramModel)) {
// transform the default value into a method
cbForDevaultValues.method(makeParamDefaultValueMethod(false, constructor != null ? constructor : cls, paramList, param));
if (cbForDevaultValuesDecls != null) {
cbForDevaultValuesDecls.method(makeParamDefaultValueMethod(true, constructor != null ? constructor : cls, paramList, param));
}
} else if (Strategy.hasDelegatedDpm(cls) && cls.getContainer() instanceof Class) {
// generate a dpm which delegates to the companion
java.util.List<Parameter> parameters = paramList.getModel().getParameters();
MethodDefinitionBuilder mdb = makeDelegateToCompanion((Interface) cls.getRefinedDeclaration().getContainer(), constructor != null ? constructor.getReference() : cls.getReference(), ((TypeDeclaration) cls.getContainer()).getType(), FINAL | (modifierTransformation().classFlags(cls) & ~ABSTRACT), List.<TypeParameter>nil(), Collections.<java.util.List<Type>>emptyList(), paramModel.getType().getFullType(), Naming.getDefaultedParamMethodName(cls, paramModel), parameters.subList(0, parameters.indexOf(paramModel)), false, Naming.getDefaultedParamMethodName(cls, paramModel), param.getParameterModel());
cbForDevaultValues.method(mdb);
}
}
}
boolean addOverloadedConstructor = false;
if (generateInstantiator) {
if (cls.isInterfaceMember()) {
MethodDefinitionBuilder instBuilder = new DefaultedArgumentInstantiator(daoAbstract, cls, constructor, instantiatorDeclCb.isCompanionBuilder()).makeOverload(paramList.getModel(), param.getParameterModel(), cls.getTypeParameters());
instantiatorDeclCb.method(instBuilder);
}
if (!cls.isInterfaceMember() || !cls.isFormal()) {
MethodDefinitionBuilder instBuilder = new DefaultedArgumentInstantiator(new DaoThis(node, paramList), cls, constructor, instantiatorImplCb.isCompanionBuilder()).makeOverload(paramList.getModel(), param.getParameterModel(), cls.getTypeParameters());
instantiatorImplCb.method(instBuilder);
} else {
addOverloadedConstructor = true;
}
} else {
addOverloadedConstructor = true;
}
if (addOverloadedConstructor) {
// Add overloaded constructors for defaulted parameter
// MethodDefinitionBuilder overloadBuilder;
DefaultedArgumentConstructor dac;
if (constructor != null) {
dac = new DefaultedArgumentConstructor(classBuilder.addConstructor(constructor.isDeprecated()), constructor, node, paramList, delegationConstructor);
} else {
dac = new DefaultedArgumentConstructor(classBuilder.addConstructor(cls.isDeprecated()), cls, node, paramList, delegationConstructor);
}
// overloadBuilder =
dac.makeOverload(paramList.getModel(), param.getParameterModel(), cls.getTypeParameters());
}
}
}
}
use of org.eclipse.ceylon.langtools.tools.javac.util.List in project ceylon by eclipse.
the class ExpressionTransformer method transform.
public JCTree transform(Tree.MemberLiteral expr) {
at(expr);
Declaration declaration = expr.getDeclaration();
if (declaration == null)
return makeErroneous(expr, "compiler bug: missing declaration");
if (declaration.isToplevel()) {
return makeTopLevelValueOrFunctionLiteral(expr);
} else if (expr.getWantsDeclaration()) {
return makeMemberValueOrFunctionDeclarationLiteral(expr, declaration);
} else {
// get its produced ref
Reference producedReference = expr.getTarget();
// it's a member we get from its container type
Type containerType = producedReference.getQualifyingType();
// if we have no container type it means we have an object member
boolean objectMember = containerType.getDeclaration().isAnonymous();
JCExpression memberCall;
if (objectMember) {
// We don't care about the type args for the cast, nor for the reified container expr, because
// we take the real reified container type from the container instance, and that one has the type
// arguments
containerType = ((Class) declaration.getContainer()).getType();
}
JCExpression typeCall = makeTypeLiteralCall(containerType, false, expr.getTypeModel());
// make sure we cast it to ClassOrInterface
String metatypeName;
if (Decl.isConstructor(declaration)) {
Class constructedClass = ModelUtil.getConstructedClass(declaration);
Declaration container = getDeclarationContainer(constructedClass);
if (constructedClass.isToplevel() || container instanceof TypeDeclaration == false) {
metatypeName = "Class";
} else {
metatypeName = "MemberClass";
}
} else {
metatypeName = "ClassOrInterface";
}
TypeDeclaration classOrInterfaceDeclaration = (TypeDeclaration) typeFact().getLanguageModuleModelDeclaration(metatypeName);
JCExpression classOrInterfaceTypeExpr = makeJavaType(classOrInterfaceDeclaration.appliedReference(null, Arrays.asList(containerType)).getType());
typeCall = make().TypeCast(classOrInterfaceTypeExpr, typeCall);
// we will need a TD for the container
// Note that we don't use Basic for the container for object members, because that's not how we represent
// anonymous types.
JCExpression reifiedContainerExpr = makeReifiedTypeArgument(containerType);
// make a raw call and cast
if (Decl.isConstructor(declaration)) {
Type callableType = producedReference.getFullType();
/*JCExpression reifiedArgumentsExpr;
if (Decl.isEnumeratedConstructor(Decl.getConstructor(declaration))) {
reifiedArgumentsExpr = makeReifiedTypeArgument(typeFact().getCallableTuple(callableType.getQualifyingType()));
} else {
reifiedArgumentsExpr = makeReifiedTypeArgument(typeFact().getCallableTuple(callableType));
}*/
JCExpression reifiedArguments;
if (ModelUtil.isEnumeratedConstructor(ModelUtil.getConstructor(declaration))) {
reifiedArguments = makeReifiedTypeArgument(typeFact().getNothingType());
} else {
reifiedArguments = makeReifiedTypeArgument(typeFact().getCallableTuple(callableType));
}
List<JCExpression> arguments = List.of(reifiedArguments, ceylonLiteral(declaration.getName()));
JCExpression classModel = makeSelect(typeCall, "getDeclaredConstructor");
memberCall = make().Apply(null, classModel, arguments);
} else if (declaration instanceof Function) {
// we need to get types for each type argument
JCExpression closedTypesExpr = null;
if (expr.getTypeArgumentList() != null) {
java.util.List<Type> typeModels = expr.getTypeArgumentList().getTypeModels();
if (typeModels != null) {
closedTypesExpr = getClosedTypesSequential(typeModels);
}
}
// we also need type descriptors for ret and args
Type callableType = producedReference.getFullType();
JCExpression reifiedReturnTypeExpr = makeReifiedTypeArgument(typeFact().getCallableReturnType(callableType));
JCExpression reifiedArgumentsExpr = makeReifiedTypeArgument(typeFact().getCallableTuple(callableType));
List<JCExpression> arguments;
if (closedTypesExpr != null)
arguments = List.of(reifiedContainerExpr, reifiedReturnTypeExpr, reifiedArgumentsExpr, ceylonLiteral(declaration.getName()), closedTypesExpr);
else
arguments = List.of(reifiedContainerExpr, reifiedReturnTypeExpr, reifiedArgumentsExpr, ceylonLiteral(declaration.getName()));
memberCall = make().Apply(null, makeSelect(typeCall, "getMethod"), arguments);
} else if (declaration instanceof Value) {
JCExpression reifiedGetExpr = makeReifiedTypeArgument(producedReference.getType());
String getterName = "getAttribute";
Type ptype;
if (!((Value) declaration).isVariable())
ptype = typeFact().getNothingType();
else
ptype = producedReference.getType();
JCExpression reifiedSetExpr = makeReifiedTypeArgument(ptype);
memberCall = make().Apply(null, makeSelect(typeCall, getterName), List.of(reifiedContainerExpr, reifiedGetExpr, reifiedSetExpr, ceylonLiteral(declaration.getName())));
} else {
return makeErroneous(expr, "Unsupported member type: " + declaration);
}
// if(objectMember){
// // now get the instance and bind it
// // I don't think we need any expected type since objects can't be erased
// JCExpression object = transformExpression(expr.getObjectExpression());
// // reset the location after we transformed the expression
// memberCall = at(expr).Apply(null, makeSelect(memberCall, "bind"), List.of(object));
// }
// cast the member call because we invoke it with no Java generics
memberCall = make().TypeCast(makeJavaType(expr.getTypeModel(), JT_RAW | JT_NO_PRIMITIVES), memberCall);
memberCall = make().TypeCast(makeJavaType(expr.getTypeModel(), JT_NO_PRIMITIVES), memberCall);
return memberCall;
}
}
use of org.eclipse.ceylon.langtools.tools.javac.util.List in project ceylon by eclipse.
the class CeylonVisitor method transformSingletonConstructor.
protected void transformSingletonConstructor(HashMap<Constructor, CtorDelegation> delegates, Tree.Enumerated ctor) {
// generate a constructor
transformConstructor(ctor, // ctor.getParameterList(),
null, ctor.getDelegatedConstructor(), ctor.getBlock(), ctor.getEnumerated(), delegates);
Class clz = ModelUtil.getConstructedClass(ctor.getEnumerated());
Value singletonModel = ctor.getDeclarationModel();
// generate a field
AttributeDefinitionBuilder adb = AttributeDefinitionBuilder.singleton(gen, singletonModel.getName(), singletonModel, false);
adb.modelAnnotations(gen.makeAtEnumerated());
adb.modelAnnotations(gen.makeAtIgnore());
adb.userAnnotations(gen.expressionGen().transformAnnotations(OutputElement.GETTER, ctor));
adb.fieldAnnotations(gen.expressionGen().transformAnnotations(OutputElement.FIELD, ctor));
// not setter
adb.immutable();
SyntheticName field = gen.naming.getValueConstructorFieldName(singletonModel);
if (clz.isToplevel()) {
adb.modifiers((singletonModel.isShared() ? PUBLIC : PRIVATE) | STATIC | FINAL);
adb.initialValue(gen.make().NewClass(null, null, gen.naming.makeTypeDeclarationExpression(null, ModelUtil.getConstructedClass(ctor.getEnumerated())), List.<JCExpression>of(gen.make().TypeCast(gen.naming.makeNamedConstructorType(ctor.getEnumerated(), false), gen.makeNull())), null), BoxingStrategy.BOXED);
classBuilder.defs(adb.build());
} else if (clz.isClassMember()) {
int mods = 0;
if (!singletonModel.isShared()) {
mods |= PRIVATE;
}
if (clz.isClassOrInterfaceMember() && clz.isStatic()) {
mods |= STATIC;
}
adb.modifiers(mods);
// lazy
adb.initialValue(gen.makeNull(), BoxingStrategy.BOXED);
List<JCStatement> l = List.<JCStatement>of(gen.make().If(gen.make().Binary(JCTree.Tag.EQ, field.makeIdent(), gen.makeNull()), gen.make().Exec(gen.make().Assign(field.makeIdent(), gen.make().NewClass(null, null, gen.naming.makeTypeDeclarationExpression(null, ModelUtil.getConstructedClass(ctor.getEnumerated())), List.<JCExpression>of(gen.make().TypeCast(gen.naming.makeNamedConstructorType(ctor.getEnumerated(), false), gen.makeNull())), null))), null), gen.make().Return(field.makeIdent()));
adb.getterBlock(gen.make().Block(0, l));
long mods2 = PRIVATE | TRANSIENT;
if (clz.isStatic()) {
mods2 |= STATIC;
}
classBuilder.getContainingClassBuilder().defs(gen.makeVar(mods2, field, gen.naming.makeTypeDeclarationExpression(null, ModelUtil.getConstructedClass(ctor.getEnumerated())), gen.makeNull()));
classBuilder.getContainingClassBuilder().defs(adb.build());
} else {
// LOCAL
// we have to first make an empty box
JCNewClass initialValue = gen.make().NewClass(null, null, gen.naming.makeTypeDeclarationExpression(null, ModelUtil.getConstructedClass(ctor.getEnumerated())), List.<JCExpression>of(gen.make().TypeCast(gen.naming.makeNamedConstructorType(ctor.getEnumerated(), false), gen.makeNull())), null);
JCVariableDecl box = gen.makeVariableBoxDecl(gen.makeNull(), singletonModel);
classBuilder.before(box);
// then do the class, and after that, assign our instance to the box
JCAssign assign = gen.make().Assign(gen.makeSelect(field.getName(), NamingBase.getGetterName(singletonModel)), initialValue);
classBuilder.after(gen.make().Exec(assign));
}
}
Aggregations