Type* compileIndexes(Type* arrayType) {
// parse a sequence of indexes, check the consistency to the arrayType, and return the element type
Type *idxType = NULL;
Type *elmType = NULL;
while (lookAhead->tokenType == SB_LSEL) {
eat(SB_LSEL);
// if current element is not of array type,
// then the access to the next dimension is invalid
checkArrayType(arrayType);
idxType = compileExpression();
checkIntType(idxType);
eat(SB_RSEL);
// Down 1 level of dimension
arrayType = arrayType->elementType;
}
// arrayType becomes elmType when we traverse to the last dimension
elmType = arrayType;
return elmType;
}
Type* compileIndexes(Type* arrayType) {
// TODO: parse a sequence of indexes, check the consistency to the arrayType, and return the element type
Type* type;
while (lookAhead->tokenType == SB_LSEL) {
eat(SB_LSEL);
type = compileExpression();
checkIntType(type);
checkArrayType(arrayType);
arrayType = arrayType->elementType;
eat(SB_RSEL);
}
checkBasicType(arrayType);
return arrayType;
}
Type* compileIndexes(Type* arrayType) {
Type* type;
while (lookAhead->tokenType == SB_LSEL) {
eat(SB_LSEL);
type = compileExpression();
checkIntType(type);
checkArrayType(arrayType);
arrayType = arrayType->elementType;
eat(SB_RSEL);
}
checkBasicType(arrayType);
return arrayType;
}
Type* compileIndexes(Type* arrayType) {
// TODO: Generate code for computing array element address
Type* type;
while (lookAhead->tokenType == SB_LSEL) {
eat(SB_LSEL);
type = compileExpression();
checkIntType(type);
checkArrayType(arrayType);
arrayType = arrayType->elementType;
eat(SB_RSEL);
}
checkBasicType(arrayType);
return arrayType;
}
TTErr TTData::ArrayInit()
{
// reset initialisation state
mInitialized = NO;
// if valueDefault type is right
if (checkArrayType(mValueDefault))
if (!(mValueDefault.empty()))
{
TTValue empty;
this->Command(mValueDefault, empty);
}
// notify observers about the initialization state
initializedAttribute->sendNotification(kTTSym_notify, mInitialized);
return kTTErrNone;
}
