| # Gaudi Framework, version v22r2 |

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# OutputStream.cpp

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    00001 // $Id: OutputStream.cpp,v 1.23 2008/01/15 13:46:52 marcocle Exp $
    00002 #define GAUDISVC_PERSISTENCYSVC_OUTPUTSTREAM_CPP
    00003
    00004 // Framework include files
    00005 #include "GaudiKernel/Tokenizer.h"
    00006 #include "GaudiKernel/AlgFactory.h"
    00007 #include "GaudiKernel/IRegistry.h"
    00008 #include "GaudiKernel/IAlgManager.h"
    00009 #include "GaudiKernel/ISvcLocator.h"
    00010 #include "GaudiKernel/IConversionSvc.h"
    00011 #include "GaudiKernel/IDataManagerSvc.h"
    00012 #include "GaudiKernel/IDataProviderSvc.h"
    00013 #include "GaudiKernel/IPersistencySvc.h"
    00014 #include "GaudiKernel/IOpaqueAddress.h"
    00015 #include "GaudiKernel/Incident.h"
    00016 #include "GaudiKernel/IIncidentSvc.h"
    00017
    00018 #include "GaudiKernel/MsgStream.h"
    00019 #include "GaudiKernel/strcasecmp.h"
    00020 #include "GaudiKernel/DataObject.h"
    00021 #include "GaudiKernel/DataStoreItem.h"
    00022 #include "OutputStream.h"
    00023 #include "OutputStreamAgent.h"
    00024
    00025 #include <set>
    00026
    00027 // Define the algorithm factory for the standard output data writer
    00028 DECLARE_ALGORITHM_FACTORY(OutputStream)
    00029
    00030 // Standard Constructor
    00031 OutputStream::OutputStream(const std::string& name, ISvcLocator* pSvcLocator)
    00032  : Algorithm(name, pSvcLocator)
    00033 {
    00034   m_doPreLoad      = true;
    00035   m_doPreLoadOpt   = false;
    00036   m_verifyItems    = true;
    00037   m_output         = "";
    00038   m_outputName     = "";
    00039   m_outputType     = "UPDATE";
    00040   m_storeName      = "EventDataSvc";
    00041   m_persName       = "EventPersistencySvc";
    00042   m_agent          = new OutputStreamAgent(this);
    00043   m_acceptAlgs     = new std::vector<Algorithm*>();
    00044   m_requireAlgs    = new std::vector<Algorithm*>();
    00045   m_vetoAlgs       = new std::vector<Algorithm*>();
    00048   m_fireIncidents  = true;
    00049   declareProperty("ItemList",         m_itemNames);
    00050   declareProperty("OptItemList",      m_optItemNames);
    00051   declareProperty("Preload",          m_doPreLoad);
    00052   declareProperty("PreloadOptItems",  m_doPreLoadOpt);
    00053   declareProperty("Output",           m_output);
    00054   declareProperty("OutputFile",       m_outputName);
    00055   declareProperty("EvtDataSvc",       m_storeName);
    00056   declareProperty("EvtConversionSvc", m_persName);
    00057   declareProperty("AcceptAlgs",       m_acceptNames);
    00058   declareProperty("RequireAlgs",      m_requireNames);
    00059   declareProperty("VetoAlgs",         m_vetoNames);
    00060   declareProperty("VerifyItems",      m_verifyItems);
    00063
    00064   // Associate action handlers with the AcceptAlgs, RequireAlgs & VetoAlgs properties
    00065   m_acceptNames.declareUpdateHandler ( &OutputStream::acceptAlgsHandler , this );
    00066   m_requireNames.declareUpdateHandler( &OutputStream::requireAlgsHandler, this );
    00067   m_vetoNames.declareUpdateHandler   ( &OutputStream::vetoAlgsHandler   , this );
    00068 }
    00069
    00070 // Standard Destructor
    00071 OutputStream::~OutputStream()   {
    00072   delete m_agent;
    00073   delete m_acceptAlgs;
    00074   delete m_requireAlgs;
    00075   delete m_vetoAlgs;
    00076 }
    00077
    00078 // initialize data writer
    00079 StatusCode OutputStream::initialize() {
    00080   MsgStream log(msgSvc(), name());
    00081
    00082   // Reset the number of events written
    00083   m_events = 0;
    00084   // Get access to the DataManagerSvc
    00085   m_pDataManager = serviceLocator()->service(m_storeName);
    00086   if( !m_pDataManager.isValid() )   {
    00087     log << MSG::FATAL << "Unable to locate IDataManagerSvc interface" << endmsg;
    00088     return StatusCode::FAILURE;
    00089   }
    00090   // Get access to the IncidentService
    00091   m_incidentSvc = serviceLocator()->service("IncidentSvc");
    00092   if( !m_incidentSvc.isValid() )  {
    00093     log << MSG::WARNING << "Error retrieving IncidentSvc." << endmsg;
    00094     return StatusCode::FAILURE;
    00095   }
    00096   // Get access to the assigned data service
    00097   m_pDataProvider = serviceLocator()->service(m_storeName);
    00098   if( !m_pDataProvider.isValid() )   {
    00099     log << MSG::FATAL << "Unable to locate IDataProviderSvc interface of " << m_storeName << endmsg;
    00100     return StatusCode::FAILURE;
    00101   }
    00102   if ( hasInput() )  {
    00103     StatusCode status = connectConversionSvc();
    00104     if( !status.isSuccess() )   {
    00105       log << MSG::FATAL << "Unable to connect to conversion service." << endmsg;
    00106       if(m_outputName!="" && m_fireIncidents) m_incidentSvc->fireIncident(Incident(m_outputName,
    00107                                            IncidentType::FailOutputFile));
    00108       return status;
    00109     }
    00110   }
    00111
    00112   // Clear the list with optional items
    00113   clearItems(m_optItemList);
    00114   // Clear the item list
    00115   clearItems(m_itemList);
    00116
    00117   ItemNames::iterator i;
    00118   // Take the new item list from the properties.
    00119   for(i = m_itemNames.begin(); i != m_itemNames.end(); i++)   {
    00120     addItem( m_itemList, *i );
    00121   }
    00122
    00123   // Take the new item list from the properties.
    00124   for(i = m_optItemNames.begin(); i != m_optItemNames.end(); i++)   {
    00125     addItem( m_optItemList, *i );
    00126   }
    00127
    00128   // Take the item list to the data service preload list.
    00129   if ( m_doPreLoad )    {
    00130     for(Items::iterator j = m_itemList.begin(); j != m_itemList.end(); j++)   {
    00131       m_pDataProvider->addPreLoadItem( *(*j) ).ignore();
    00132     }
    00133     // Not working: bad reference counting! pdataSvc->release();
    00134   }
    00135
    00136   if ( m_doPreLoadOpt )    {
    00137     for(Items::iterator j=m_optItemList.begin(); j!=m_optItemList.end(); j++) {
    00138       m_pDataProvider->addPreLoadItem( *(*j) );
    00139     }
    00140   }
    00141   log << MSG::INFO << "Data source: " << m_storeName  << " output: " << m_output << endmsg;
    00142
    00143   // Decode the accept, required and veto Algorithms. The logic is the following:
    00144   //  a. The event is accepted if all lists are empty.
    00145   //  b. The event is provisionally accepted if any Algorithm in the accept list
    00146   //     has been executed and has indicated that its filter is passed. This
    00147   //     provisional acceptance can be overridden by the other lists.
    00148   //  c. The event is rejected unless all Algorithms in the required list have
    00149   //     been executed and have indicated that their filter passed.
    00150   //  d. The event is rejected if any Algorithm in the veto list has been
    00151   //     executed and has indicated that its filter has passed.
    00152   decodeAcceptAlgs ().ignore();
    00153   decodeRequireAlgs().ignore();
    00154   decodeVetoAlgs   ().ignore();
    00155   return StatusCode::SUCCESS;
    00156 }
    00157
    00158 // terminate data writer
    00159 StatusCode OutputStream::finalize() {
    00160   MsgStream log(msgSvc(), name());
    00161   log << MSG::INFO << "Events output: " << m_events << endmsg;
    00162   if(m_fireIncidents) m_incidentSvc->fireIncident(Incident(m_outputName,
    00163                                        IncidentType::EndOutputFile));
    00164   m_incidentSvc.reset();
    00165   m_pDataProvider.reset();
    00166   m_pDataManager.reset();
    00167   m_pConversionSvc.reset();
    00168   clearItems(m_optItemList);
    00169   clearItems(m_itemList);
    00170   return StatusCode::SUCCESS;
    00171 }
    00172
    00173 // Work entry point
    00174 StatusCode OutputStream::execute() {
    00175   // Clear any previously existing item list
    00176   clearSelection();
    00177   // Test whether this event should be output
    00178   if ( isEventAccepted() )  {
    00179     StatusCode sc = writeObjects();
    00180     clearSelection();
    00181     m_events++;
    00182     if(sc.isSuccess() && m_fireIncidents)
    00183       m_incidentSvc->fireIncident(Incident(m_outputName,
    00184                                            IncidentType::WroteToOutputFile));
    00185     else if(m_fireIncidents)
    00186       m_incidentSvc->fireIncident(Incident(m_outputName,
    00187                                            IncidentType::FailOutputFile));
    00188     return sc;
    00189   }
    00190   return StatusCode::SUCCESS;
    00191 }
    00192
    00193 // Select the different objects and write them to file
    00194 StatusCode OutputStream::writeObjects()  {
    00195   // Connect the output file to the service
    00196   StatusCode status = collectObjects();
    00197   if ( status.isSuccess() )   {
    00198     IDataSelector*  sel = selectedObjects();
    00199     if ( sel->begin() != sel->end() )  {
    00200       status = m_pConversionSvc->connectOutput(m_outputName, m_outputType);
    00201       if ( status.isSuccess() )   {
    00202         // Now pass the collection to the persistency service
    00203         IDataSelector::iterator j;
    00204         IOpaqueAddress* pAddress = 0;
    00205         for ( j = sel->begin(); j != sel->end(); j++ )    {
    00206           StatusCode iret = m_pConversionSvc->createRep( *j, pAddress );
    00207           if ( !iret.isSuccess() )      {
    00208             status = iret;
    00209             continue;
    00210           }
    00211           IRegistry* pReg = (*j)->registry();
    00212           pReg->setAddress(pAddress);
    00213         }
    00214         for ( j = sel->begin(); j != sel->end(); j++ )    {
    00215           IRegistry* pReg = (*j)->registry();
    00216           StatusCode iret = m_pConversionSvc->fillRepRefs( pReg->address(), *j );
    00217           if ( !iret.isSuccess() )      {
    00218             status = iret;
    00219           }
    00220         }
    00221               // Commit the data if there was no error; otherwise possibly discard
    00222         if ( status.isSuccess() )  {
    00223           status = m_pConversionSvc->commitOutput(m_outputName, true);
    00224         }
    00225         else   {
    00226           m_pConversionSvc->commitOutput(m_outputName, false);
    00227         }
    00228       }
    00229     }
    00230   }
    00231   return status;
    00232 }
    00233
    00234 // Place holder to create configurable data store agent
    00235 bool OutputStream::collect(IRegistry* dir, int level)    {
    00236   if ( level < m_currentItem->depth() )   {
    00237     if ( dir->object() != 0 )   {
    00238       /*
    00239       std::cout << "Analysing ("
    00240                 << dir->name()
    00241                 << ") Object:"
    00242                 << ((dir->object()==0) ? "UNLOADED" : "LOADED")
    00243                 << std::endl;
    00244       */
    00245       m_objects.push_back(dir->object());
    00246       return true;
    00247     }
    00248   }
    00249   return false;
    00250 }
    00251
    00253 StatusCode OutputStream::collectObjects()   {
    00254   MsgStream log(msgSvc(), name());
    00255   StatusCode status = StatusCode::SUCCESS;
    00256   Items::iterator i;
    00257   // Traverse the tree and collect the requested objects
    00258   for ( i = m_itemList.begin(); i != m_itemList.end(); i++ )    {
    00259     DataObject* obj = 0;
    00260     m_currentItem = (*i);
    00261     StatusCode iret = m_pDataProvider->retrieveObject(m_currentItem->path(), obj);
    00262     if ( iret.isSuccess() )  {
    00263       iret = m_pDataManager->traverseSubTree(obj, m_agent);
    00264       if ( !iret.isSuccess() )  {
    00265         status = iret;
    00266       }
    00267     }
    00268     else  {
    00269       log << MSG::ERROR << "Cannot write mandatory object(s) (Not found) "
    00270           << m_currentItem->path() << endmsg;
    00271       status = iret;
    00272     }
    00273   }
    00274   // Traverse the tree and collect the requested objects (tolerate missing items here)
    00275   for ( i = m_optItemList.begin(); i != m_optItemList.end(); i++ )    {
    00276     DataObject* obj = 0;
    00277     m_currentItem = (*i);
    00278     StatusCode iret = m_pDataProvider->retrieveObject(m_currentItem->path(), obj);
    00279     if ( iret.isSuccess() )  {
    00280       iret = m_pDataManager->traverseSubTree(obj, m_agent);
    00281     }
    00282     if ( !iret.isSuccess() )    {
    00283       log << MSG::DEBUG << "Ignore request to write non-mandatory object(s) "
    00284           << m_currentItem->path() << endmsg;
    00285     }
    00286   }
    00287
    00288   if (status.isSuccess()){
    00289     // Remove duplicates from the list of objects, preserving the order in the list
    00290     std::set<DataObject*> unique;
    00291     std::vector<DataObject*> tmp; // temporary vector with the reduced list
    00292     tmp.reserve(m_objects.size());
    00293     for (std::vector<DataObject*>::iterator o = m_objects.begin(); o != m_objects.end(); ++o) {
    00294       if (!unique.count(*o)) {
    00295         // if the pointer is not in the set, add it to both the set and the temporary vector
    00296         unique.insert(*o);
    00297         tmp.push_back(*o);
    00298       }
    00299     }
    00300     m_objects.swap(tmp); // swap the data of the two vectors
    00301   }
    00302
    00303   return status;
    00304 }
    00305
    00306 // Clear collected object list
    00307 void OutputStream::clearSelection()     {
    00308   m_objects.erase(m_objects.begin(), m_objects.end());
    00309 }
    00310
    00311 // Remove all items from the output streamer list;
    00312 void OutputStream::clearItems(Items& itms)     {
    00313   for ( Items::iterator i = itms.begin(); i != itms.end(); i++ )    {
    00314     delete (*i);
    00315   }
    00316   itms.erase(itms.begin(), itms.end());
    00317 }
    00318
    00319 // Find single item identified by its path (exact match)
    00320 DataStoreItem*
    00321 OutputStream::findItem(const std::string& path)  {
    00322   for(Items::const_iterator i=m_itemList.begin(); i != m_itemList.end(); ++i)  {
    00323     if ( (*i)->path() == path )  return (*i);
    00324   }
    00325   for(Items::const_iterator j=m_optItemList.begin(); j != m_optItemList.end(); ++j)  {
    00326     if ( (*j)->path() == path )  return (*j);
    00327   }
    00328   return 0;
    00329 }
    00330
    00331 // Add item to output streamer list
    00332 void OutputStream::addItem(Items& itms, const std::string& descriptor)   {
    00333         MsgStream log(msgSvc(), name());
    00334   int level = 0;
    00335   size_t sep = descriptor.rfind("#");
    00336   std::string obj_path (descriptor,0,sep);
    00337   std::string slevel   (descriptor,sep+1,descriptor.length());
    00338   if ( slevel == "*" )  {
    00339     level = 9999999;
    00340   }
    00341   else   {
    00342     level = atoi(slevel.c_str());
    00343   }
    00344   if ( m_verifyItems )  {
    00345     size_t idx = obj_path.find("/",1);
    00346     while(idx != std::string::npos)  {
    00347       std::string sub_item = obj_path.substr(0,idx);
    00348       if ( 0 == findItem(sub_item) )   {
    00349         addItem(itms, sub_item+"#1");
    00350       }
    00351       idx = obj_path.find("/",idx+1);
    00352     }
    00353   }
    00354   DataStoreItem* item = new DataStoreItem(obj_path, level);
    00355   log << MSG::DEBUG << "Adding OutputStream item " << item->path()
    00356       << " with " << item->depth()
    00357       << " level(s)." << endmsg;
    00358   itms.push_back( item );
    00359 }
    00360
    00361 // Connect to proper conversion service
    00362 StatusCode OutputStream::connectConversionSvc()   {
    00363   StatusCode status = StatusCode(StatusCode::FAILURE, true);
    00364   MsgStream log(msgSvc(), name());
    00365   // Get output file from input
    00366   std::string dbType, svc, shr;
    00367   Tokenizer tok(true);
    00368   tok.analyse(m_output, " ", "", "", "=", "'", "'");
    00369   for(Tokenizer::Items::iterator i = tok.items().begin(); i != tok.items().end(); ++i)   {
    00370     const std::string& tag = (*i).tag();
    00371     const std::string& val = (*i).value();
    00372     switch( ::toupper(tag[0]) )    {
    00373     case 'D':
    00374       m_outputName = val;
    00375       break;
    00376     case 'T':
    00377       dbType = val;
    00378       break;
    00379     case 'S':
    00380       switch( ::toupper(tag[1]) )   {
    00381       case 'V':    svc = val;      break;
    00382       case 'H':    shr = "YES";    break;
    00383       }
    00384       break;
    00385     case 'O':   // OPT='<NEW<CREATE,WRITE,RECREATE>, UPDATE>'
    00386       switch( ::toupper(val[0]) )   {
    00387       case 'R':
    00388         if ( ::strncasecmp(val.c_str(),"RECREATE",3)==0 )
    00389           m_outputType = "RECREATE";
    00390         else if ( ::strncasecmp(val.c_str(),"READ",3)==0 )
    00391           m_outputType = "READ";
    00392         break;
    00393       case 'C':
    00394       case 'N':
    00395       case 'W':
    00396         m_outputType = "NEW";
    00397         break;
    00398       case 'U':
    00399         m_outputType = "UPDATE";
    00400         break;
    00401       default:
    00402         m_outputType = "???";
    00403         break;
    00404       }
    00405       break;
    00406     default:
    00407       break;
    00408     }
    00409   }
    00410   if ( !shr.empty() ) m_outputType += "|SHARED";
    00411   // Get access to the default Persistency service
    00412   // The default service is the same for input as for output.
    00413   // If this is not desired, then a specialized OutputStream must overwrite
    00414   // this value.
    00415   if ( dbType.length() > 0 && svc.length()==0 )   {
    00416     SmartIF<IPersistencySvc> ipers(serviceLocator()->service(m_persName));
    00417     if( !ipers.isValid() )   {
    00418       log << MSG::FATAL << "Unable to locate IPersistencySvc interface of " << m_persName << endmsg;
    00419       return StatusCode::FAILURE;
    00420     }
    00421     IConversionSvc *cnvSvc = 0;
    00422     status = ipers->getService(dbType, cnvSvc);
    00423     if( !status.isSuccess() )   {
    00424       log << MSG::FATAL << "Unable to locate IConversionSvc interface of database type " << dbType << endmsg;
    00425       return status;
    00426     }
    00427     // Increase reference count and keep service.
    00428     m_pConversionSvc = cnvSvc;
    00429   }
    00430   else if ( svc.length() > 0 )    {
    00431     // On success reference count is automatically increased.
    00432     m_pConversionSvc = serviceLocator()->service(svc);
    00433     if( !m_pConversionSvc.isValid() )   {
    00434       log << MSG::FATAL << "Unable to locate IConversionSvc interface of " << svc << endmsg;
    00435       return StatusCode::FAILURE;
    00436     }
    00437   }
    00438   else    {
    00439     log << MSG::FATAL
    00440         << "Unable to locate IConversionSvc interface (Unknown technology) " << endmsg
    00441         << "You either have to specify a technology name or a service name!" << endmsg
    00442         << "Please correct the job option \"" << name() << ".Output\" !"     << endmsg;
    00443     return StatusCode::FAILURE;
    00444   }
    00445   return StatusCode::SUCCESS;
    00446 }
    00447
    00448 StatusCode OutputStream::decodeAcceptAlgs( ) {
    00449   return decodeAlgorithms( m_acceptNames, m_acceptAlgs );
    00450 }
    00451
    00452 void OutputStream::acceptAlgsHandler( Property& /* theProp */ )  {
    00453   StatusCode sc = decodeAlgorithms( m_acceptNames, m_acceptAlgs );
    00454   if (sc.isFailure()) {
    00455     throw GaudiException("Failure in OutputStream::decodeAlgorithms",
    00456                          "OutputStream::acceptAlgsHandler",sc);
    00457   }
    00458 }
    00459
    00460 StatusCode OutputStream::decodeRequireAlgs( )  {
    00461   return decodeAlgorithms( m_requireNames, m_requireAlgs );
    00462 }
    00463
    00464 void OutputStream::requireAlgsHandler( Property& /* theProp */ )  {
    00465   StatusCode sc = decodeAlgorithms( m_requireNames, m_requireAlgs );
    00466   if (sc.isFailure()) {
    00467     throw GaudiException("Failure in OutputStream::decodeAlgorithms",
    00468                          "OutputStream::requireAlgsHandler",sc);
    00469   }
    00470 }
    00471
    00472 StatusCode OutputStream::decodeVetoAlgs( )  {
    00473   return decodeAlgorithms( m_vetoNames, m_vetoAlgs );
    00474 }
    00475
    00476 void OutputStream::vetoAlgsHandler( Property& /* theProp */ )  {
    00477   StatusCode sc = decodeAlgorithms( m_vetoNames, m_vetoAlgs );
    00478   if (sc.isFailure()) {
    00479     throw GaudiException("Failure in OutputStream::decodeAlgorithms",
    00480                          "OutputStream::vetoAlgsHandler",sc);
    00481   }
    00482 }
    00483
    00484 StatusCode OutputStream::decodeAlgorithms( StringArrayProperty& theNames,
    00485                                            std::vector<Algorithm*>* theAlgs )
    00486 {
    00487   // Reset the list of Algorithms
    00488   theAlgs->clear( );
    00489
    00490   MsgStream log( msgSvc( ), name( ) );
    00491
    00492   StatusCode result = StatusCode::FAILURE;
    00493
    00494   SmartIF<IAlgManager> theAlgMgr(serviceLocator());
    00495   if ( theAlgMgr.isValid() ) {
    00496     // Build the list of Algorithms from the names list
    00497     const std::vector<std::string> nameList = theNames.value( );
    00498     std::vector<std::string>::const_iterator it;
    00499     std::vector<std::string>::const_iterator itend = nameList.end( );
    00500     for (it = nameList.begin(); it != itend; ++it) {
    00501       // Check whether the supplied name corresponds to an existing
    00502       // Algorithm object.
    00503       const std::string &theName = (*it);
    00504       SmartIF<IAlgorithm> &theIAlg = theAlgMgr->algorithm(theName);
    00505       Algorithm*  theAlgorithm;
    00506       if ( theIAlg.isValid() ) {
    00507         result = StatusCode::SUCCESS;
    00508         try{
    00509           theAlgorithm = dynamic_cast<Algorithm*>(theIAlg.get());
    00510         } catch(...){
    00511           result = StatusCode::FAILURE;
    00512         }
    00513       }
    00514       if ( result.isSuccess( ) ) {
    00515         // Check that the specified algorithm doesn't already exist in the list
    00516         std::vector<Algorithm*>::iterator ita;
    00517         std::vector<Algorithm*>::iterator itaend = theAlgs->end( );
    00518         for (ita = theAlgs->begin(); ita != itaend; ++ita) {
    00519           Algorithm* existAlgorithm = (*ita);
    00520           if ( theAlgorithm == existAlgorithm ) {
    00521             result = StatusCode::FAILURE;
    00522             break;
    00523           }
    00524         }
    00525         if ( result.isSuccess( ) ) {
    00526           theAlgorithm->addRef();
    00527           theAlgs->push_back( theAlgorithm );
    00528         }
    00529       }
    00530       else {
    00531         log << MSG::INFO << theName << " doesn't exist - ignored" << endmsg;
    00532       }
    00533     }
    00534     result = StatusCode::SUCCESS;
    00535   }
    00536   else {
    00537     log << MSG::FATAL << "Can't locate ApplicationMgr!!!" << endmsg;
    00538   }
    00539   return result;
    00540 }
    00541
    00542 bool OutputStream::isEventAccepted( ) const  {
    00543   typedef std::vector<Algorithm*>::iterator AlgIter;
    00544   bool result = true;
    00545
    00546   // Loop over all Algorithms in the accept list to see
    00547   // whether any have been executed and have their filter
    00548   // passed flag set. Any match causes the event to be
    00549   // provisionally accepted.
    00550   if ( ! m_acceptAlgs->empty() ) {
    00551     result = false;
    00552     for(AlgIter i=m_acceptAlgs->begin(),end=m_acceptAlgs->end(); i != end; ++i) {
    00553       if ( (*i)->isExecuted() && (*i)->filterPassed() ) {
    00554         result = true;
    00555         break;
    00556       }
    00557     }
    00558   }
    00559
    00560   // Loop over all Algorithms in the required list to see
    00561   // whether all have been executed and have their filter
    00562   // passed flag set. Any mismatch causes the event to be
    00563   // rejected.
    00564   if ( result && ! m_requireAlgs->empty() ) {
    00565     for(AlgIter i=m_requireAlgs->begin(),end=m_requireAlgs->end(); i != end; ++i) {
    00566       if ( !(*i)->isExecuted() || !(*i)->filterPassed() ) {
    00567         result = false;
    00568         break;
    00569       }
    00570     }
    00571   }
    00572
    00573   // Loop over all Algorithms in the veto list to see
    00574   // whether any have been executed and have their filter
    00575   // passed flag set. Any match causes the event to be
    00576   // rejected.
    00577   if ( result && ! m_vetoAlgs->empty() ) {
    00578     for(AlgIter i=m_vetoAlgs->begin(),end=m_vetoAlgs->end(); i != end; ++i) {
    00579       if ( (*i)->isExecuted() && (*i)->filterPassed() ) {
    00580         result = false;
    00581         break;
    00582       }
    00583     }
    00584   }
    00585   return result;
    00586 }
    00587
    00588 bool OutputStream::hasInput() const {
    00589   return !(m_itemNames.empty() && m_optItemNames.empty());
    00590 }

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