void
IceInternal::Incoming::invoke(const ServantManagerPtr& servantManager, BasicStream* stream)
{
_is = stream;
BasicStream::Container::iterator start = _is->i;
//
// Read the current.
//
_is->read(_current.id);
//
// For compatibility with the old FacetPath.
//
string facet;
{
vector<string> facetPath;
_is->read(facetPath);
if(!facetPath.empty())
{
if(facetPath.size() > 1)
{
throw MarshalException(__FILE__, __LINE__);
}
facet.swap(facetPath[0]);
}
}
_current.facet.swap(facet);
_is->read(_current.operation, false);
Byte b;
_is->read(b);
_current.mode = static_cast<OperationMode>(b);
Int sz = _is->readSize();
while(sz--)
{
pair<const string, string> pr;
_is->read(const_cast<string&>(pr.first));
_is->read(pr.second);
_current.ctx.insert(_current.ctx.end(), pr);
}
const CommunicatorObserverPtr& obsv = _is->instance()->initializationData().observer;
if(obsv)
{
// Read the parameter encapsulation size.
Ice::Int sz;
_is->read(sz);
_is->i -= 4;
_observer.attach(obsv->getDispatchObserver(_current, static_cast<Int>(_is->i - start + sz)));
}
//
// Don't put the code above into the try block below. Exceptions
// in the code above are considered fatal, and must propagate to
// the caller of this operation.
//
if(servantManager)
{
_servant = servantManager->findServant(_current.id, _current.facet);
if(!_servant)
{
_locator = servantManager->findServantLocator(_current.id.category);
if(!_locator && !_current.id.category.empty())
{
_locator = servantManager->findServantLocator("");
}
if(_locator)
{
try
{
_servant = _locator->locate(_current, _cookie);
}
catch(const UserException& ex)
{
Ice::EncodingVersion encoding = _is->skipEncaps(); // Required for batch requests.
_observer.userException();
if(_response)
{
_os.write(replyUserException);
_os.startWriteEncaps(encoding, DefaultFormat);
_os.write(ex);
_os.endWriteEncaps();
_observer.reply(static_cast<Int>(_os.b.size() - headerSize - 4));
_responseHandler->sendResponse(_current.requestId, &_os, _compress, false);
}
else
{
_responseHandler->sendNoResponse();
}
_observer.detach();
_responseHandler = 0;
return;
}
catch(const std::exception& ex)
{
_is->skipEncaps(); // Required for batch requests.
__handleException(ex, false);
return;
}
catch(...)
{
_is->skipEncaps(); // Required for batch requests.
__handleException(false);
return;
}
}
}
}
try
{
if(_servant)
{
//
// DispatchAsync is a "pseudo dispatch status", used internally only
// to indicate async dispatch.
//
if(_servant->__dispatch(*this, _current) == DispatchAsync)
{
return;
}
if(_locator && !__servantLocatorFinished(false))
{
return;
}
}
else
{
//
// Skip the input parameters, this is required for reading
// the next batch request if dispatching batch requests.
//
_is->skipEncaps();
if(servantManager && servantManager->hasServant(_current.id))
{
throw FacetNotExistException(__FILE__, __LINE__, _current.id, _current.facet, _current.operation);
}
else
{
throw ObjectNotExistException(__FILE__, __LINE__, _current.id, _current.facet, _current.operation);
}
}
}
catch(const std::exception& ex)
{
if(_servant && _locator && !__servantLocatorFinished(false))
{
return;
}
__handleException(ex, false);
return;
}
catch(...)
{
if(_servant && _locator && !__servantLocatorFinished(false))
{
return;
}
__handleException(false);
return;
}
//
// Don't put the code below into the try block above. Exceptions
// in the code below are considered fatal, and must propagate to
// the caller of this operation.
//
if(_response)
{
_observer.reply(static_cast<Int>(_os.b.size() - headerSize - 4));
_responseHandler->sendResponse(_current.requestId, &_os, _compress, false);
}
else
{
_responseHandler->sendNoResponse();
}
_observer.detach();
_responseHandler = 0;
}
void
IceInternal::Incoming::invoke(const ServantManagerPtr& servantManager)
{
//
// Read the current.
//
_current.id.__read(&_is);
//
// For compatibility with the old FacetPath.
//
string facet;
{
vector<string> facetPath;
_is.read(facetPath);
if(!facetPath.empty())
{
if(facetPath.size() > 1)
{
throw MarshalException(__FILE__, __LINE__);
}
facet.swap(facetPath[0]);
}
}
_current.facet.swap(facet);
_is.read(_current.operation, false);
Byte b;
_is.read(b);
_current.mode = static_cast<OperationMode>(b);
Int sz;
_is.readSize(sz);
while(sz--)
{
pair<const string, string> pr;
_is.read(const_cast<string&>(pr.first));
_is.read(pr.second);
_current.ctx.insert(_current.ctx.end(), pr);
}
_is.startReadEncaps();
if(_response)
{
assert(_os.b.size() == headerSize + 4); // Dispatch status position.
_os.write(static_cast<Byte>(0));
_os.startWriteEncaps();
}
// Initialize status to some value, to keep the compiler happy.
DispatchStatus status = DispatchOK;
//
// Don't put the code above into the try block below. Exceptions
// in the code above are considered fatal, and must propagate to
// the caller of this operation.
//
try
{
try
{
if(servantManager)
{
_servant = servantManager->findServant(_current.id, _current.facet);
if(!_servant)
{
_locator = servantManager->findServantLocator(_current.id.category);
if(!_locator && !_current.id.category.empty())
{
_locator = servantManager->findServantLocator("");
}
if(_locator)
{
_servant = _locator->locate(_current, _cookie);
}
}
}
if(!_servant)
{
if(servantManager && servantManager->hasServant(_current.id))
{
status = DispatchFacetNotExist;
}
else
{
status = DispatchObjectNotExist;
}
}
else
{
status = _servant->__dispatch(*this, _current);
}
}
catch(...)
{
if(_locator && _servant && status != DispatchAsync)
{
_locator->finished(_current, _servant, _cookie);
}
throw;
}
if(_locator && _servant && status != DispatchAsync)
{
_locator->finished(_current, _servant, _cookie);
}
}
catch(const Exception& ex)
{
_is.endReadEncaps();
__handleException(ex);
return;
}
catch(const std::exception& ex)
{
_is.endReadEncaps();
__handleException(ex);
return;
}
catch(...)
{
_is.endReadEncaps();
__handleException();
return;
}
//
// Don't put the code below into the try block above. Exceptions
// in the code below are considered fatal, and must propagate to
// the caller of this operation.
//
_is.endReadEncaps();
//
// DispatchAsync is "pseudo dispatch status", used internally only
// to indicate async dispatch.
//
if(status == DispatchAsync)
{
//
// If this was an asynchronous dispatch, we're done here.
//
return;
}
if(_response)
{
_os.endWriteEncaps();
if(status != DispatchOK && status != DispatchUserException)
{
assert(status == DispatchObjectNotExist ||
status == DispatchFacetNotExist ||
status == DispatchOperationNotExist);
_os.b.resize(headerSize + 4); // Dispatch status position.
_os.write(static_cast<Byte>(status));
_current.id.__write(&_os);
//
// For compatibility with the old FacetPath.
//
if(_current.facet.empty())
{
_os.write(static_cast<string*>(0), static_cast<string*>(0));
}
else
{
_os.write(&_current.facet, &_current.facet + 1);
}
_os.write(_current.operation, false);
}
else
{
*(_os.b.begin() + headerSize + 4) = static_cast<Byte>(status); // Dispatch status position.
}
_connection->sendResponse(&_os, _compress);
}
else
{
_connection->sendNoResponse();
}
}
IceInternal::Direct::Direct(const Current& current) :
_current(current)
{
ObjectAdapterI* adapter = dynamic_cast<ObjectAdapterI*>(_current.adapter.get());
assert(adapter);
//
// Must call incDirectCount() first, because it checks for adapter
// deactivation, and prevents deactivation completion until
// decDirectCount() is called. This is important, because
// getServantManager() may not be called afer deactivation
// completion.
//
adapter->incDirectCount();
ServantManagerPtr servantManager = adapter->getServantManager();
assert(servantManager);
_servant = servantManager->findServant(_current.id, _current.facet);
if(!_servant)
{
_locator = servantManager->findServantLocator(_current.id.category);
if(!_locator && !_current.id.category.empty())
{
_locator = servantManager->findServantLocator("");
}
if(_locator)
{
try
{
_servant = _locator->locate(_current, _cookie);
}
catch(...)
{
adapter->decDirectCount();
throw;
}
}
}
if(!_servant)
{
adapter->decDirectCount();
if(servantManager && servantManager->hasServant(_current.id))
{
FacetNotExistException ex(__FILE__, __LINE__);
ex.id = _current.id;
ex.facet = _current.facet;
ex.operation = _current.operation;
throw ex;
}
else
{
ObjectNotExistException ex(__FILE__, __LINE__);
ex.id = _current.id;
ex.facet = _current.facet;
ex.operation = _current.operation;
throw ex;
}
}
}
void
IceInternal::Incoming::invoke(const ServantManagerPtr& servantManager, InputStream* stream)
{
_is = stream;
InputStream::Container::iterator start = _is->i;
//
// Read the current.
//
_is->read(_current.id);
//
// For compatibility with the old FacetPath.
//
string facet;
{
vector<string> facetPath;
_is->read(facetPath);
if(!facetPath.empty())
{
if(facetPath.size() > 1)
{
throw MarshalException(__FILE__, __LINE__);
}
facet.swap(facetPath[0]);
}
}
_current.facet.swap(facet);
_is->read(_current.operation, false);
Byte b;
_is->read(b);
_current.mode = static_cast<OperationMode>(b);
Int sz = _is->readSize();
while(sz--)
{
pair<const string, string> pr;
_is->read(const_cast<string&>(pr.first));
_is->read(pr.second);
_current.ctx.insert(_current.ctx.end(), pr);
}
const CommunicatorObserverPtr& obsv = _is->instance()->initializationData().observer;
if(obsv)
{
// Read the parameter encapsulation size.
Ice::Int sz;
_is->read(sz);
_is->i -= 4;
_observer.attach(obsv->getDispatchObserver(_current, static_cast<Int>(_is->i - start + sz)));
}
//
// Don't put the code above into the try block below. Exceptions
// in the code above are considered fatal, and must propagate to
// the caller of this operation.
//
if(servantManager)
{
_servant = servantManager->findServant(_current.id, _current.facet);
if(!_servant)
{
_locator = servantManager->findServantLocator(_current.id.category);
if(!_locator && !_current.id.category.empty())
{
_locator = servantManager->findServantLocator("");
}
if(_locator)
{
try
{
_servant = _locator->locate(_current, _cookie);
}
catch(const std::exception& ex)
{
skipReadParams(); // Required for batch requests.
handleException(ex, false);
return;
}
catch(...)
{
skipReadParams(); // Required for batch requests.
handleException("unknown c++ exception", false);
return;
}
}
}
}
if(!_servant)
{
try
{
if(servantManager && servantManager->hasServant(_current.id))
{
throw FacetNotExistException(__FILE__, __LINE__, _current.id, _current.facet, _current.operation);
}
else
{
throw ObjectNotExistException(__FILE__, __LINE__, _current.id, _current.facet, _current.operation);
}
}
catch(const Ice::LocalException& ex)
{
skipReadParams(); // Required for batch requests
handleException(ex, false);
return;
}
}
try
{
//
// Dispatch in the incoming call
//
_servant->_iceDispatch(*this, _current);
//
// If the request was not dispatched asynchronously, send the response.
//
if(!_inAsync)
{
response(false);
}
}
catch(const std::exception& ex)
{
if(_inAsync)
{
try
{
_inAsync->kill(*this);
}
catch(const Ice::ResponseSentException&)
{
const Ice::PropertiesPtr properties = _os.instance()->initializationData().properties;
if(properties->getPropertyAsIntWithDefault("Ice.Warn.Dispatch", 1) > 0)
{
if(const IceUtil::Exception* exc = dynamic_cast<const IceUtil::Exception*>(&ex))
{
warning(*exc);
}
else
{
warning(string("std::exception: ") + ex.what());
}
}
return;
}
}
exception(ex, false);
}
catch(...)
{
if(_inAsync)
{
try
{
_inAsync->kill(*this);
}
catch(const Ice::ResponseSentException&)
{
const Ice::PropertiesPtr properties = _os.instance()->initializationData().properties;
if(properties->getPropertyAsIntWithDefault("Ice.Warn.Dispatch", 1) > 0)
{
warning("unknown c++ exception");
}
return;
}
}
exception("unknown c++ exception", false);
}
}