std::vector<Type*> FunctionReference::getTargetArguments() {
std::vector<Type*> args;
for (unsigned int i = 0; i < getArgTypes().size(); i++) {
if (getArgTypes()[i].get() == nullptr) {
args.push_back(getTypeManager().getType(TypeUnresolved));
} else {
args.push_back(getArgTypes()[i]->type());
}
}
return args;
}
Any Serializer::deserializeAsClass(IClassMeta* classMeta)
{
auto serializeConstructor = findSerializeConstructor(classMeta);
if (serializeConstructor != nullptr)
{
auto argType = serializeConstructor->getArgTypes()[0];
auto arg = deserialize(argType);
return serializeConstructor->invoke(arg);
}
auto object = classMeta->create();
auto pointer = classMeta->makePointer(object);
deserializeClassFields(pointer, classMeta);
return object;
}
void SemanticsVisitor::visit(CallingNode& cn) {
cn.getFunctionName()->accept(*this);
try {
if (FunctionAttributes* attr =
dynamic_cast<FunctionAttributes*>(
currentSymbolTable().retrieveSymbol(cn.getFunctionName()->name()))) {
if (applicable(
attr->getSignature(),
getArgTypes(cn.getArgList()))) {
} else {
errorLog() << "Provided parameter not applicable. Expected: " << cn.getFunctionName()->name() << "\n"; // TODO expected...print signature
cn.setType(0); // NOTICE by design, null attribute and error type is 0.
}
} else {
errorLog() << cn.getFunctionName()->name() << " is not a function name.\n";
cn.setType(0); // NOTICE by design, null attribute and error type is 0.
}
} catch (std::runtime_error& e) {
errorLog() << "Function " << cn.getFunctionName()->name() << " undeclared.\n";
cn.setType(0); // NOTICE by design, null attribute and error type is 0.
}
}
