@Override
public Void visitExecutable(AnnotatedExecutableType t, Void p) {
Void result = super.visitExecutable(t, p);
Element elem = t.getElement();
if (elem.getKind() == ElementKind.CONSTRUCTOR) {
AnnotatedDeclaredType returnType = (AnnotatedDeclaredType) t.getReturnType();
DeclaredType underlyingType = returnType.getUnderlyingType();
returnType.replaceAnnotation(getFreeOrRawAnnotationOfSuperType(underlyingType));
}
return result;
}
/**
* Checks that the annotations on the type arguments supplied to a type or a method invocation are
* within the bounds of the type variables as declared, and issues the
* "type.argument.type.incompatible" error if they are not.
*
* <p>This method used to be visitParameterizedType, which incorrectly handles the main annotation
* on generic types.
*/
protected Void visitParameterizedType(AnnotatedDeclaredType type, ParameterizedTypeTree tree) {
// System.out.printf("TypeValidator.visitParameterizedType: type: %s, tree: %s\n",
// type, tree);
if (TreeUtils.isDiamondTree(tree)) return null;
final TypeElement element = (TypeElement) type.getUnderlyingType().asElement();
if (checker.shouldSkipUses(element)) return null;
List<AnnotatedTypeVariable> typevars = atypeFactory.typeVariablesFromUse(type, element);
visitor.checkTypeArguments(tree, typevars, type.getTypeArguments(), tree.getTypeArguments());
return null;
}
@Override
public Void visitDeclared(AnnotatedDeclaredType type, Tree tree) {
if (checker.shouldSkipUses(type.getUnderlyingType().asElement()))
return super.visitDeclared(type, tree);
{
// Ensure that type use is a subtype of the element type
// isValidUse determines the erasure of the types.
AnnotatedDeclaredType elemType =
(AnnotatedDeclaredType)
atypeFactory.getAnnotatedType(type.getUnderlyingType().asElement());
if (!visitor.isValidUse(elemType, type, tree)) {
reportError(type, tree);
}
}
// System.out.println("Type: " + type);
// System.out.println("Tree: " + tree);
// System.out.println("Tree kind: " + tree.getKind());
/*
* Try to reconstruct the ParameterizedTypeTree from the given tree.
* TODO: there has to be a nicer way to do this...
*/
Pair<ParameterizedTypeTree, AnnotatedDeclaredType> p = extractParameterizedTypeTree(tree, type);
ParameterizedTypeTree typeargtree = p.first;
type = p.second;
if (typeargtree != null) {
// We have a ParameterizedTypeTree -> visit it.
visitParameterizedType(type, typeargtree);
/*
* Instead of calling super with the unchanged "tree", adapt the
* second argument to be the corresponding type argument tree. This
* ensures that the first and second parameter to this method always
* correspond. visitDeclared is the only method that had this
* problem.
*/
List<? extends AnnotatedTypeMirror> tatypes = type.getTypeArguments();
if (tatypes == null) return null;
// May be zero for a "diamond" (inferred type args in constructor
// invocation).
int numTypeArgs = typeargtree.getTypeArguments().size();
if (numTypeArgs != 0) {
// TODO: this should be an equality, but in
// http://buffalo.cs.washington.edu:8080/job/jdk6-daikon-typecheck/2061/console
// it failed with:
// daikon/Debug.java; message: size mismatch for type arguments:
// @NonNull Object and Class<?>
// but I didn't manage to reduce it to a test case.
assert tatypes.size() <= numTypeArgs
: "size mismatch for type arguments: " + type + " and " + typeargtree;
for (int i = 0; i < tatypes.size(); ++i) {
scan(tatypes.get(i), typeargtree.getTypeArguments().get(i));
}
}
return null;
// Don't call the super version, because it creates a mismatch
// between
// the first and second parameters.
// return super.visitDeclared(type, tree);
}
return super.visitDeclared(type, tree);
}
