}
// We might know the maximum number of elements in advance.
- llvm::APSInt maxElements(elementIndex.getBitWidth(), 0);
+ llvm::APSInt maxElements(elementIndex.getBitWidth(), elementIndex.isUnsigned());
bool maxElementsKnown = false;
if (const ConstantArrayType *CAT =
SemaRef->Context.getAsConstantArrayType(DeclType)) {
maxElements = CAT->getSize();
elementIndex.extOrTrunc(maxElements.getBitWidth());
+ elementIndex.setIsUnsigned(maxElements.isUnsigned());
maxElementsKnown = true;
}
maxElements.extend(elementIndex.getBitWidth());
else if (elementIndex.getBitWidth() < maxElements.getBitWidth())
elementIndex.extend(maxElements.getBitWidth());
+ elementIndex.setIsUnsigned(maxElements.isUnsigned());
// If the array is of incomplete type, keep track of the number of
// elements in the initializer.
if (DeclType->isIncompleteArrayType()) {
// If this is an incomplete array type, the actual type needs to
// be calculated here.
- llvm::APInt Zero(maxElements.getBitWidth(), 0);
+ llvm::APSInt Zero(maxElements.getBitWidth(), maxElements.isUnsigned());
if (maxElements == Zero) {
// Sizing an array implicitly to zero is not allowed by ISO C,
// but is supported by GNU.
if (isa<ConstantArrayType>(AT)) {
llvm::APSInt MaxElements(cast<ConstantArrayType>(AT)->getSize(), false);
DesignatedIndex.extOrTrunc(MaxElements.getBitWidth());
+ DesignatedIndex.setIsUnsigned(MaxElements.isUnsigned());
if (DesignatedIndex >= MaxElements) {
SemaRef->Diag(IndexExpr->getSourceRange().getBegin(),
diag::err_array_designator_too_large)
<< Index->getSourceRange();
// Make sure this constant expression is non-negative.
- llvm::APSInt Zero(llvm::APSInt::getNullValue(Value.getBitWidth()), false);
+ llvm::APSInt Zero(llvm::APSInt::getNullValue(Value.getBitWidth()),
+ Value.isUnsigned());
if (Value < Zero)
return Self.Diag(Loc, diag::err_array_designator_negative)
<< Value.toString(10) << Index->getSourceRange();