C++ Object::type方法代码示例

bool __stdcall elaborate(IUnknown* currentObj)
{
	try {
		CComPtr<IMgaFCO> fcoCurrentObj;
		currentObj->QueryInterface(&fcoCurrentObj);
		if (fcoCurrentObj)
		{
			CComPtr<IMgaProject> project;
			if (SUCCEEDED(fcoCurrentObj->get_Project(&project)))
			{
				UdmGme::GmeDataNetwork dn(CyPhyML::diagram);
				dn.OpenExisting(project, Udm::CHANGES_LOST_DEFAULT, true);
				Udm::Object current = dn.Gme2Udm(fcoCurrentObj);

				CyPhyElaborate cpe;
				if (current.type() == ComponentAssembly::meta) {
					cpe.elaborate( CyPhyML::ComponentAssembly::Cast(current) );
					return true;
				} else if (current.type() == TestBench::meta) {
					cpe.elaborate( CyPhyML::TestBench::Cast(current) );
					return true;
				}
			}
		}
	} catch (udm_exception& e) {
		return false;
	}
	return false;
}

std::string SFManager::getContainingFunctionScope( Udm::Object object ) {

	while(  !Udm::IsDerivedFrom( object.type(), SFC::Program::meta )  ) {
		if (  Udm::IsDerivedFrom( object.type(), SFC::Function::meta )  ) {
			return SFC::Function::Cast( object ).scope();
		}

		object = object.GetParent();
	}

	return "";
}

void CyPhyElaborate::SwitchReference(CyPhyML::TestBenchType tb)
{
	set<Udm::Object> bTargets = tb.GetChildObjects(CHILD_CLASS::meta);
	for (auto bTargetIt = bTargets.begin(); bTargetIt != bTargets.end(); bTargetIt++)
	{
		CHILD_CLASS bTarget = CHILD_CLASS::Cast(*bTargetIt);
		//Udm::Object bTargetCopy = btb.__impl()->createChild(Udm::NULLCHILDROLE, *referenceMeta);
		CHILD_CLASS bTargetCopy = CHILD_CLASS::Create(tb);

		TIPRefBase base;
		auto copyIt = originalObjectToCopies.find(bTarget.ref());
		if (copyIt == originalObjectToCopies.end())
		{
			throw udm_exception("Bug: could not find BallisticTarget copy");
		}
		while (copyIt != originalObjectToCopies.end())
		{
			base = TIPRefBase::Cast(copyIt->second);
			copyIt = originalObjectToCopies.find(base);
		}
		bTargetCopy.ref() = TIPRefBase::Cast(base);
		bTargetCopy.__impl()->CopyAttributesFrom(bTarget.__impl());

		// Debugging
		// std::string d1 = bTarget.getPath("/");
		// std::string d2 = bTargetCopy.getPath("/");
		//std::string d3 = TIPRefBase::Cast(base).getPath("/");
		// std::string target_type = static_cast<Udm::Object>(bTarget.ref()).type().name();
		// OutputDebugStringA("\n\n");
		// for (auto it = originalObjectToCopies.begin(); it != originalObjectToCopies.end(); ++it)
		// {
		// 	OutputDebugStringA((UdmUtil::ExtractName(it->first) + "\t" + UdmGme::UdmId2GmeId(it->first) + "\t" + UdmUtil::ExtractName(it->second) + "\n").c_str());
		// }

		SwitchConnections(bTarget, bTargetCopy, Udm::null, bTarget.GetParent());
		Udm::Object eventualTarget = bTarget;
		while (!!getReferredOrNull(eventualTarget))
		{
			eventualTarget = getReferredOrNull(eventualTarget);
		}
		// std::string d4 = eventualTarget.getPath("/");
		// std::string d5 = eventualTarget.type().name();
		// std::string d6 = getReferredOrNull(bTargetCopy).getPath("/");
		// std::string d22 = UdmGme::UdmId2GmeId(bTargetCopy.uniqueId());
		// std::string d22ref = UdmGme::UdmId2GmeId(Udm::Object(bTargetCopy.ref()).uniqueId());
		
		if (!!eventualTarget && Uml::IsDerivedFrom(eventualTarget.type(), CyPhyML::Component::meta))
			// Components are created as instances, so the RelIDs are the same
			SwitchRefportConnections(bTarget, bTargetCopy, map<Udm::Object, Udm::Object>(), *dynamic_cast<UdmGme::GmeDataNetwork*>(bTarget.__impl()->__getdn()));
		else
			// ComponentAssemblys are created with CopyObjectHierarchy, so the originalObjectToCopies map is correct
			SwitchRefportConnections(bTarget, bTargetCopy, originalObjectToCopies, *dynamic_cast<UdmGme::GmeDataNetwork*>(bTarget.__impl()->__getdn()));
		bTarget.DeleteObject();
		//bTarget.name() = std::string(bTarget.name()) + "tobedeleted";
		//std::string d7 = getReferredOrNull(bTargetCopy).getPath("/");
		//std::string d6_2 = getReferredOrNull(bTargetCopy).getPath("/");
		//std::string d22_2 = UdmGme::UdmId2GmeId(bTargetCopy.uniqueId());
		//std::string d22ref_2 = UdmGme::UdmId2GmeId(Udm::Object(bTargetCopy.ref()).uniqueId());
	}
}

	static StateVector getStateAncestors( SLSF::State state ) {
		StateVector stateVector;
		stateVector.push_back( state );

		Udm::Object object = state.GetParent();
		while( object.type() == SLSF::State::meta ) {
			state = SLSF::State::Cast( object );
			stateVector.push_back( state );
			object = state.GetParent();
		}

		return stateVector;
	}

void SFManager::initVar( SFC::CompoundStatement compoundStatement, SFC::Var var ) {
	Udm::Object object = Udm::Object::Cast( var );
	if ( object.type() != SFC::LocalVar::meta ) return;
	SFC::LocalVar localVar = SFC::LocalVar::Cast( var );

	SFC::DT dt = localVar.dt();
	std::string name = localVar.name();
	if ( dt.type() == SFC::Struct::meta ) {
		initVarAux( compoundStatement, localVar, name );
		return;
	}

	std::string initial = localVar.initial();
	if ( initial.empty() ) initial = "0";
	::mstat2SFC( compoundStatement, name + " = " + initial, true, true );
}

CString ModelHandler::extractPortType(Udm::Object portObj)
{
	// whenever the connected port found is derived from DataPort then extract type from the enum attribute of the dstPort
	if(Udm::IsDerivedFrom(portObj.type(), SignalFlow::DataPort::meta))
	{
		return CString(((string) SignalFlow::DataPort::Cast(portObj).DataType()).c_str()).Trim();
	}
	// whenever the connected Port is derived from SF_Port then find the contained TypeRef Port to get the type
	else if(Udm::IsDerivedFrom(portObj.type(), Simulink::SF_Port::meta) ||
			Udm::IsDerivedFrom(portObj.type(), Simulink::SFStateDE::meta) ||
			Udm::IsDerivedFrom(portObj.type(), Simulink::StateDE::meta)
		)
	{
		// find type from the contained type ref
		set<Udm::Object> typerefSet = portObj.GetChildObjects(Simulink::TypeBaseRef::meta);
		// a port can have only a single type
		if(typerefSet.size() == 1)
		{
			Simulink::TypeBaseRef typeBaseRef = Simulink::TypeBaseRef::Cast(*(typerefSet.begin()));
			try
			{
				return CString(((string) Simulink::SF_Matrix::Cast(typeBaseRef.getReferencedObject()).Type()).c_str()).Trim();
			} catch(udm_exception e)
			{
				throw udm_exception(_T("Simulink::TypeBaseRef is currently allowed to refer to objects of only Simulink::SF_Matrix type! @[OBJECT:]") +
									MyUdmUtil::getHyperLinkPath_StdString(typeBaseRef));
			}
		}
		else if(typerefSet.size() > 1)
		{
			throw udm_exception(MyUdmUtil::getHyperLinkPath_StdString(portObj) + _T(" contains more than 1 Simulink::TypeBaseRef type objects. "));
		}
	}
	// the portObj is an InputSignalInterface of a ModelicaComponent
	else if(portObj.type().name() == "InputSignalInterface")
	{
		return CString(((string) InputSignalInterface::Cast(portObj).Class()).c_str()).Trim();
	}
	// the portObj is an OutputSignalInterface of a ModelicaComponent
	else if(portObj.type().name() == "OutputSignalInterface")
	{
		return CString(((string) OutputSignalInterface::Cast(portObj).Class()).c_str()).Trim();
	}
	// the portObj is a ParameterRef of a ModelicaComponent
	else if(portObj.type().name() == "ParameterRef")
	{
		return CString(((string) ParameterRef::Cast(portObj).Class()).c_str()).Trim();
	}

	return CString(_T(""));
}

string CUdmApp::ExtractName(Udm::Object ob)
{
	Uml::Class cls= ob.type();				
	set<Uml::Attribute> attrs=cls.attributes();		
	
	// Adding parent attributes
	set<Uml::Attribute> aattrs=Uml::AncestorAttributes(cls);
	attrs.insert(aattrs.begin(),aattrs.end());

	for(set<Uml::Attribute>::iterator ai = attrs.begin();ai != attrs.end(); ai++)
	{
		if(string(ai->type())=="String")
		{
			string str=ai->name();
			if(str=="name")
			{
				string value=ob.getStringAttr(*ai);
				if(value.empty())value="<empty string>";
				return value;
			}			
		}				
	}	
	return string("<no name specified>");
}

void CUdmApp::UdmMain(
					 Udm::DataNetwork* p_backend,		// Backend pointer(already open!)
					 Udm::Object focusObject,			// Focus object
					 std::set<Udm::Object> selectedObjects,	// Selected objects
					 long param)						// Parameters
{	

	// TODO: Your Code Comes Here...

	try
	{
		if (param == 128)
		{
			automated_expand = true;
			ConsoleMessagesOn = false;
		}
		set<Udm::Object> mySet;
		if (focusObject) {
			mySet.insert(focusObject);
		} else {
			for (set<Udm::Object>::const_iterator i = selectedObjects.begin(); i != selectedObjects.end(); i++)
				mySet.insert(*i);
		}

		bool expand = automated_expand;
		bool collapse = automated_collapse;
		if (!automated_expand && !automated_collapse) {
			int result = IDYES; // collapse is broken MessageBoxA(NULL, "Yes to expand, No to collapse", "Operation", MB_YESNO);
			if (result == IDYES)
				expand = true;
			else if (result == IDNO)
				collapse = true;
		}
		
		CyPhyElaborate cpe;

		for (std::set<Udm::Object>::const_iterator i = mySet.begin(); i != mySet.end(); i++) {
			Udm::Object oi(*i);

			if (oi.type() == ComponentAssembly::meta) {
				if (expand)
				{
					cpe.elaborate( CyPhyML::ComponentAssembly::Cast(oi) );
					for (set<Udm::Object>::const_iterator j = cpe.cr_null_ref_set.begin(); j != cpe.cr_null_ref_set.end(); j++)
						GMEConsole::Console::writeLine("ComponentRef [" + (string)(CyPhyML::ComponentRef::Cast(*j).name()) + "] is null!" , MSG_WARNING);
				}
				else if (collapse)
					; // cpe.collapse( CyPhyML::ComponentAssembly::Cast(oi) );
			} else if (Udm::IsDerivedFrom(focusObject.type(), TestBenchType::meta)) {
				if (expand)
				{
					cpe.elaborate(TestBenchType::Cast(oi));
				}
				else if (collapse)
				{
					; // cpe.collapse(TestBenchType::Cast(oi));
				}
			}
		}
		traceability.Attach(new CyPhyElaborateTraceability(std::unique_ptr<std::map<Udm::Object, Udm::Object> >(std::move(cpe.copiedObjectsToOriginals))));
	}
	catch (udm_exception &exc)
	{
		GMEConsole::Console::writeLine("Udm exception occured! Exception description: " + (std::string)exc.what(), MSG_ERROR);
        msg_exception = exc.what();
        throw exc;
	}
	catch (...)
	{
		GMEConsole::Console::writeLine("Non-Udm exception occured.", MSG_ERROR);
	}
}

std::string UdmComparator::ObjectName::operator()( Udm::Object udmObject ) {

	static StringSet reportedClassNameSet;

	Uml::Class umlClass = udmObject.type();
	Uml::Attribute umlNameAttribute;

	UmlClassNameAttributeMap::iterator cnmItr = _umlClassNameAttributeMap.find( umlClass );
	if ( cnmItr != _umlClassNameAttributeMap.end() ) {

		umlNameAttribute = cnmItr->second;

	} else {

		NameUmlAttributeMap nameUmlAttributeMap = getNameUmlAttributeMap( umlClass );
			
		NameUmlAttributeMap::iterator numItr = nameUmlAttributeMap.find( "name" );
		if ( numItr != nameUmlAttributeMap.end() ) {

			umlNameAttribute = numItr->second;

		} else {

			numItr = nameUmlAttributeMap.find( "Name" );
			if ( numItr != nameUmlAttributeMap.end() ) {

				umlNameAttribute = numItr->second;

			} else if (  static_cast< std::string >( umlClass.stereotype() ) != "Connection"  ) {

				std::string className = umlClass.name();
				if ( reportedClassNameSet.find( className ) == reportedClassNameSet.end() ) {
					std::cerr << "WARNING: Class \"" << className << "\" has no \"[Nn]ame\" attribute." << std::endl << std::endl;
					reportedClassNameSet.insert( className );
				}
				return "";

			}

		}

		_umlClassNameAttributeMap.insert(  std::make_pair( umlClass, umlNameAttribute )  );

	}

	std::string udmObjectName = "";
	if ( umlNameAttribute != Udm::null ) {
		udmObjectName = udmObject.getStringAttr( umlNameAttribute );
		if (  umlClass.stereotype() == "Connection" && udmObjectName == static_cast< std::string >( umlClass.name() )  ) {
			udmObjectName = "";
		}
	}

	if ( udmObjectName == "" && umlClass.stereotype() == "Connection" ) {

		UmlAssociationRoleSet umlAssociationRoleSet = getAllUmlAssociationRoles( umlClass );

		for( UmlAssociationRoleSet::iterator arsItr = umlAssociationRoleSet.begin() ; arsItr != umlAssociationRoleSet.end() ; ++arsItr ) {
			
			UdmObjectSet udmObjectSet = udmObject.getAssociation( *arsItr, Udm::TARGETFROMCLASS );
			for( UdmObjectSet::iterator uosItr = udmObjectSet.begin() ; uosItr != udmObjectSet.end() ; ++uosItr ) {

				if ( !udmObjectName.empty() ) udmObjectName += ":";
				udmObjectName += (*this)(*uosItr);

			}

		}

		if ( umlNameAttribute != Udm::null ) {
			udmObject.setStringAttr( umlNameAttribute, udmObjectName );
		}

	}

	Udm::Object udmObjectParent = udmObject.GetParent();

	if ( udmObjectParent != Udm::null ) {
		const auto& it = ObjectNameCache.find(udmObjectParent);
		if (it != ObjectNameCache.end())
		{
			udmObjectName = it->second + "/" + udmObjectName;
		}
		else
		{
			udmObjectName = operator()( udmObjectParent ) + "/" + udmObjectName;
		}
	}

	return udmObjectName;
}

bool UdmComparator::compareNodeAux( Udm::Object udmObject1, Udm::Object udmObject2 ) {

	bool retval = true;

	_udmObjectMap.insert(  std::make_pair( udmObject1, udmObject2 )  );

	const Uml::Class &umlClass1 = udmObject1.type();
	const Uml::Class &umlClass2 = udmObject2.type();

	if ( umlClass1 != umlClass2 ) {
		std::cerr << "Classes of objects \"" << udmObject1.getPath( "/" ) << "\" and \"" << udmObject2.getPath( "/" ) << "\" do not match!" << std::endl << std::endl;
		return false;
	}

	getObjectNameSingleton().ObjectNameCache.insert(std::make_pair(udmObject1, getObjectNameSingleton()(udmObject1)));
	getObjectNameSingleton().ObjectNameCache.insert(std::make_pair(udmObject2, getObjectNameSingleton()(udmObject2)));

	UmlAttributeSet umlAttributeSet = _classNameFilter.filterUmlAttributeSet( umlClass1 );
	for( UmlAttributeSet::iterator uasItr = umlAttributeSet.begin() ; uasItr != umlAttributeSet.end() ; ++uasItr ) {
		Uml::Attribute umlAttribute = *uasItr;
		std::string umlAttributeName = umlAttribute.name();
		std::string value1, value2;
		
		std::string umlAttributeType = umlAttribute.type();
		if ( umlAttributeType == "Boolean" ) {
			value1 = boost::lexical_cast< std::string >(  udmObject1.getBooleanAttr( umlAttribute )  );
			value2 = boost::lexical_cast< std::string >(  udmObject2.getBooleanAttr( umlAttribute )  );
		} else if ( umlAttributeType == "Integer" ) {
			value1 = boost::lexical_cast< std::string >(  udmObject1.getIntegerAttr( umlAttribute )  );
			value2 = boost::lexical_cast< std::string >(  udmObject2.getIntegerAttr( umlAttribute )  );
		} else if ( umlAttributeType == "Real" ) {
			value1 = boost::lexical_cast< std::string >(  udmObject1.getRealAttr( umlAttribute )  );
			value2 = boost::lexical_cast< std::string >(  udmObject2.getRealAttr( umlAttribute )  );
		} else {
			value1 = udmObject1.getStringAttr( umlAttribute );
			value2 = udmObject2.getStringAttr( umlAttribute );
		}

		if ( value1 != value2 ) {
			Report::get_singleton().incrementDifferences( udmObject1 );
			std::cerr << "Value of \"" << umlAttributeName << "\" attribute value differs for \"" << udmObject1.getPath( "/" ) << "\" objects:  \"" << value1 << "\" vs. \"" << value2 << "\"" << std::endl << std::endl;
			retval = false;
		}
	}

	UdmObjectSet udmObjectSet1 = _classNameFilter.filterUdmObjectSet( udmObject1.GetChildObjects() );
	UdmObjectSet udmObjectSet2 = _classNameFilter.filterUdmObjectSet( udmObject2.GetChildObjects() );

	if ( udmObjectSet1.size() != udmObjectSet2.size() ) {
		std::cerr << "\"" << udmObject1.getPath( "/" ) << "\" objects have a different number of children:  " << udmObjectSet1.size() << "," << udmObjectSet2.size() << std::endl << std::endl;
		tallyChildrenClasses( udmObjectSet1, udmObjectSet2 );
		retval = false;
	}

	udmObjectSet1 = _classNameFilter.filterConnections( udmObjectSet1 );
	udmObjectSet2 = _classNameFilter.filterConnections( udmObjectSet2 );

	UdmChildObjectSet udmChildObjectSet1;
	udmChildObjectSet1.rehash(udmObjectSet1.size());
	std::copy(udmObjectSet1.begin(), udmObjectSet1.end(), std::inserter(udmChildObjectSet1, udmChildObjectSet1.begin()));
	if ( udmChildObjectSet1.size() != udmObjectSet1.size() ) {
		std::cerr << "Object \"" << udmObject1.getPath( "/" ) << "\" in the first  model has children that cannot be distinguished (duplicate name?)." << std::endl << std::endl;
		retval = false;
	}

	UdmChildObjectSet udmChildObjectSet2;
	udmChildObjectSet2.rehash(udmObjectSet2.size());
	std::copy(udmObjectSet2.begin(), udmObjectSet2.end(), std::inserter(udmChildObjectSet2, udmChildObjectSet2.begin()));
	if ( udmChildObjectSet2.size() != udmObjectSet2.size() ) {
		std::cerr << "Object \"" << udmObject2.getPath( "/" ) << "\" in the second model has children that cannot be distinguished (duplicate name?)." << std::endl << std::endl;
		retval = false;
	}

	UdmChildObjectSet::iterator ucsItr1 = udmChildObjectSet1.begin();
	
	for (; ucsItr1 != udmChildObjectSet1.end(); ++ucsItr1) {

		UdmChildObjectSet::iterator ucsItr2 = udmChildObjectSet2.find(*ucsItr1);

		if (ucsItr2 == udmChildObjectSet2.end()) {
			std::cerr << "No corresponding object for \"" << ucsItr1->object.getPath( "/" ) << "\" in first model found in second model." << std::endl;
			Report::get_singleton().incrementDifferences( udmObject1 );
			retval = false;
			continue;
		} 

		if (compareNodeAux(ucsItr1->object, ucsItr2->object) == false) {
			retval = false;
			Report::get_singleton().addToDifferences( udmObject1 );
		}
		udmChildObjectSet2.erase(ucsItr2);
	}

	UdmChildObjectSet::iterator ucsItr2 = udmChildObjectSet2.begin();
	for (; ucsItr2 != udmChildObjectSet2.end(); ++ucsItr2) {
		std::cerr << "No corresponding object for \"" << ucsItr2->object.getPath( "/" ) << "\" in second model found in first model." << std::endl;
		Report::get_singleton().incrementDifferences( udmObject1 );
		retval = false;
	}
//	if ( !retval ) return false;
//.........这里部分代码省略.........