Stage: Sim15 Class Reference

Sim15::Sim15	(	const std::string &	name,
		ISvcLocator *	pSvcLocator
	)

Definition at line 65 of file Sim15.cc.

00065                                                            :
00066   GaudiAlgorithm(name, pSvcLocator)
00067   , m_TopStage(0)
00068   , m_sdmgr(0)
00069 {
00071   declareProperty("TopStage", m_TopStageName,"Name of top stage");  
00073   
00074   declareProperty("TimeRange", m_TimeRange = 365*24*60*60*CLHEP::second, "Time range to simulate, default 1 year.");
00075   
00076   declareProperty("Monitor", m_monitor=false,"Generate a monitor.root");
00077 }

Sim15::~Sim15 ( ) [virtual]

Definition at line 79 of file Sim15.cc.

00080 {
00081 }

StatusCode Sim15::initialize ( ) [virtual]

Reimplemented from GaudiAlgorithm.

Definition at line 83 of file Sim15.cc.

00084 {
00085   StatusCode sc = this->GaudiAlgorithm::initialize();
00086   if (sc.isFailure()) return sc;
00087   
00089   sc= toolSvc()->retrieveTool("Stage",m_TopStageName,m_TopStage);
00090   if( sc.isFailure() ) {
00091     error() << "Error retrieving the tool"<< m_TopStageName << endreq;
00092   }  
00093   debug() << "Got top Stage \"" << m_TopStageName << "\" at " << (void*) m_TopStage << endreq;
00094   // should probably make this configurable one day
00095   sc = service("StageDataManager",m_sdmgr);
00096   if (sc.isFailure()) return sc;
00097   debug() << "Got StageDataManager at " << (void*) m_sdmgr << endreq;
00099 
00100   // init root tree
00101   if(m_monitor) {
00102     m_valiTree=new ValidationTree;
00103     m_valiTree->create();
00104   }
00105 
00107   if(m_TopStageName=="SingleLoader") {
00108     // ReadoutHeader
00109     m_TopStageNum = 5;
00110   } else if(m_TopStageName=="TrigRead") {
00111     // SimReadoutHeader
00112     m_TopStageNum = 4;
00113   } else if(m_TopStageName=="Electronic") {
00114     // ElecHeader
00115     m_TopStageNum = 3;
00116   } else if (m_TopStageName=="Detector") {
00117     // SimHeader
00118     m_TopStageNum = 2;
00119   } else if (m_TopStageName=="Kinematic") {
00120     // GenHeader
00121     m_TopStageNum = 1;
00122   }
00123 
00124   m_counter = 0;
00125 
00126   sc = service("EventLoopMgr",m_EvtLoopMgr,false);
00127   if( sc.isFailure() ) {
00128     error() << "Failed to retrive EventLoopMgr service"<< endreq;
00129   }
00130   info()<<"Got EventLoopMgr service"<<endreq;
00131 
00133   info()<<m_TimeRange/CLHEP::second<<" seconds detector simulation is required."<<endreq;
00134 
00135   return StatusCode::SUCCESS;
00136 }

StatusCode Sim15::execute ( ) [virtual]

Reimplemented from GaudiAlgorithm.

Definition at line 138 of file Sim15.cc.

00139 {
00141   IStageData*  pIStageData = 0;
00142   StatusCode sc = m_TopStage->nextElement(pIStageData); // get a new data
00143   if (sc.isFailure()) return sc;
00144   debug() << "consuming stage data at " << pIStageData->time() << endreq;
00145   StatusCode sc2 = m_sdmgr->consumeData(*pIStageData);
00146   if (sc2.isFailure()) return sc2;
00148 
00149 
00150   m_counter++;
00151   if( m_counter==1 ) m_StartTime = pIStageData->time();
00152   m_CurrTime = pIStageData->time();
00153 
00154   info()<<"New element #"<<m_counter<<" at time "<<pIStageData->time()<<endreq;
00155 
00156   // if no monitor.root is required, good to go now.
00157   if(m_monitor) {
00159     typedef HeaderStageData<DayaBay::GenHeader>        GenData;
00160     typedef HeaderStageData<DayaBay::SimHeader>        SimData;
00161     typedef HeaderStageData<DayaBay::ElecHeader>       ElecData;
00162     typedef HeaderStageData<DayaBay::SimReadoutHeader> SimReadoutData;
00163     typedef HeaderStageData<DayaBay::ReadoutHeader>    ReadoutData;
00164 
00165     GenData        *pGenData=0;
00166     SimData        *pSimData=0;
00167     ElecData       *pElecData=0;
00168     SimReadoutData *pSimReadoutData=0;
00169     ReadoutData    *pReadoutData=0;
00170     
00171     const DayaBay::GenHeader        *pGenHeader=0;
00172     const DayaBay::SimHeader        *pSimHeader=0;
00173     const DayaBay::ElecHeader       *pElecHeader=0;
00174     const DayaBay::SimTrigHeader    *pSimTrigHeader=0;
00175     const DayaBay::SimReadoutHeader *pSimReadoutHeader=0;
00176     const DayaBay::ReadoutHeader    *pReadoutHeader=0;
00177     
00178     const DayaBay::IHeader* firstHeader=0;
00179     const DayaBay::HeaderObject* pHeader=0;
00180     
00181     // get the header object pointer of the top stage
00182     if(m_TopStageNum==5) {
00183       // ReadoutHeader
00184       pReadoutData=dynamic_cast<ReadoutData*>(pIStageData);
00185       pReadoutHeader=&(pReadoutData->header());
00186       pHeader=pReadoutHeader;
00187     } else if(m_TopStageNum==4) { 
00188       // SimReadoutHeader
00189       pSimReadoutData=dynamic_cast<SimReadoutData*>(pIStageData);
00190       pSimReadoutHeader=&(pSimReadoutData->header());
00191       pHeader=pSimReadoutHeader;
00192     } else if(m_TopStageNum==3) {
00193       // ElecHeader
00194       pElecData=dynamic_cast<ElecData*>(pIStageData);
00195       pElecHeader=&(pElecData->header());
00196       pHeader=pElecHeader;
00197     } else if (m_TopStageNum==2) {
00198       // SimHeader
00199       pSimData=dynamic_cast<SimData*>(pIStageData);
00200       pSimHeader=&(pSimData->header());
00201       pHeader=pSimHeader;
00202     } else if (m_TopStageNum==1) {
00203       // GenHeader
00204       pGenData=dynamic_cast<GenData*>(pIStageData);
00205       pGenHeader=&(pGenData->header()); 
00206       pHeader=pGenHeader;
00207     }
00208     
00209     // monitor, do the rest
00210     double m_e=5.109989e-1;  // MeV
00211     double m_alpha=3727.379; // MeV
00212     
00214     m_valiTree->reset();
00215     
00216     // get the header object pointer of it lower stages
00217     // only the first one, for low event rate, it is enough
00218     if(pReadoutHeader!=0) {
00219       // SimReadoutHeader
00220       if(pReadoutHeader->inputHeaders().size() != 0) {
00221         firstHeader=*((pReadoutHeader->inputHeaders()).begin());
00222         pSimReadoutHeader= dynamic_cast<const DayaBay::SimReadoutHeader*>(firstHeader);
00223       }
00224     }
00225     if(pSimReadoutHeader!=0) {
00226       debug() << "Number of input SimTrigHeaders:" <<
00227         pSimReadoutHeader->inputHeaders().size() << endreq;
00228       // SimTrigHeader
00229       if(pSimReadoutHeader->inputHeaders().size() != 0) {
00230         firstHeader=*((pSimReadoutHeader->inputHeaders()).begin());
00231         pSimTrigHeader= dynamic_cast<const DayaBay::SimTrigHeader*>(firstHeader);
00232       }
00233     }
00234     if(pSimTrigHeader!=0) {
00235       // ElecHeader
00236       if(pSimTrigHeader->inputHeaders().size() != 0) {
00237         firstHeader=*((pSimTrigHeader->inputHeaders()).begin());
00238         pElecHeader= dynamic_cast<const DayaBay::ElecHeader*>(firstHeader);
00239       }
00240     }
00241     if(pElecHeader!=0) {
00242       // SimHeader
00243       if(pElecHeader->inputHeaders().size() != 0) {
00244         firstHeader=*((pElecHeader->inputHeaders()).begin());
00245         pSimHeader= dynamic_cast<const DayaBay::SimHeader*>(firstHeader);
00246       }
00247     }
00248     if(pSimHeader!=0) {
00249       // GenHeader
00250       if(pSimHeader->inputHeaders().size() != 0) {
00251         firstHeader=*((pSimHeader->inputHeaders()).begin());
00252         pGenHeader= dynamic_cast<const DayaBay::GenHeader*>(firstHeader);
00253       }
00254     }
00255     
00256     
00257     // event information
00258     m_valiTree->time=pIStageData->time().GetSeconds();
00259     
00260     // check ReadoutHeader information
00261     if(pReadoutHeader!=0) {
00262       m_valiTree->execSing=pReadoutHeader->execNumber();
00263       
00264       // adc tdc
00265       const DayaBay::Readout* pReadout = pReadoutHeader->readout();
00266       DayaBay::Detector det = pReadout->detector();
00267       
00268       if(det.detectorId() == DetectorId::kAD1 ||  // AD information
00269          det.detectorId() == DetectorId::kAD2 ||
00270          det.detectorId() == DetectorId::kAD3 ||
00271          det.detectorId() == DetectorId::kAD4) {
00272         
00273         // convert it to PMT Crate Readout
00274         const DayaBay::ReadoutPmtCrate* pmtcrate = 0;
00275         pmtcrate = dynamic_cast<const DayaBay::ReadoutPmtCrate*>(pReadout);
00276         
00277         // channnel map
00278         const DayaBay::ReadoutPmtCrate::PmtChannelReadouts& channelMap
00279           = pmtcrate->channelReadout();
00280         
00281         DayaBay::ReadoutPmtCrate::PmtChannelReadouts::const_iterator cmci;
00282         
00283         for(cmci=channelMap.begin();cmci!=channelMap.end();++cmci) {
00284           //const DayaBay::FeeChannelId&      channelId = cmci->first;
00285           const DayaBay::ReadoutPmtChannel& aChannel  = cmci->second;
00286           
00287           //modificaton for new readout data model. Please fix me if not right.
00288           m_valiTree->adc_sum=aChannel.sumAdc();
00289           //const vector<int>&          tdc=aChannel.tdc();
00290           //const std::map<int,int>&    adc=aChannel.adc();
00291           //int tdc_peak,adc_peak;
00292           
00293           //for(unsigned long ii=0;ii<tdc.size();++ii) {
00294           //  tdc[ii];
00295           //  tdc_peak=tdc[ii];
00296           //  adc_peak=adc.find(tdc_peak)->second;
00297           //  m_valiTree->adc_sum+=adc_peak;
00298           //}
00299           //verbose()<<channelId<<" tdc "<<tdc_peak<<" adc "<<adc_peak<<endreq;
00300         }
00301       }  // end of AD crate
00302     } // end of pReadoutHeader
00303     
00304     // check SimReadoutHeader information
00305     if(pSimReadoutHeader!=0) {
00306       m_valiTree->execTrig=pSimReadoutHeader->execNumber();
00307       
00308       const DayaBay::SimReadoutHeader::SimReadoutContainer 
00309         simReadout=pSimReadoutHeader->readouts();
00310       debug()<<"No. of SimReadout: "<<simReadout.size()<<endreq;
00311       debug()<<pSimReadoutHeader->execNumber()<<endreq;
00312     } // end of pSimReadoutHeader
00313     
00314     // check electrontic simulation information if available
00315     if(pElecHeader!=0) {
00316       m_valiTree->execElec=pElecHeader->execNumber();
00317     } // end of pElecHeader
00318     
00319     // check trigger header information if available
00320     if(pSimTrigHeader!=0) {
00321       debug()<<pSimTrigHeader->commandHeader()->collections().size();
00322     }
00323     
00324     // check detector simulation information if available
00325     if(pSimHeader!=0) {
00326       m_valiTree->execDets=pSimHeader->execNumber();
00329       const DayaBay::SimHitHeader* simhitheader = pSimHeader->hits();
00330       if(simhitheader)  {
00332         const DayaBay::SimHitHeader::hc_map& hcmap = simhitheader->hitCollection();
00333         DayaBay::SimHitHeader::hc_map::const_iterator it;
00334         
00336         m_valiTree->SimHitsEntries=0;
00337         int index(0);
00338       
00339         debug()<<"size of hit collection "<< hcmap.size()<<endreq;
00340         for (it=hcmap.begin(); it != hcmap.end(); ++it) {
00341           
00342           DayaBay::Detector det(it->first);
00343           debug() << "Got hit collection from " << det.detName()<<" id= "
00344                   << det.siteDetPackedData()<<endreq;
00345           
00347           const std::vector<DayaBay::SimHit*>& hitvec=it->second->collection();
00348           std::vector<DayaBay::SimHit*>::const_iterator it_hvec;
00349           
00350           debug() <<"size of hit vector "<< hitvec.size()<<endreq;
00351           for (it_hvec=hitvec.begin(); it_hvec!=hitvec.end(); ++it_hvec) {
00352             
00353             index=m_valiTree->SimHitsEntries;
00354             if(index<MaxSimHitEntries){
00355               
00356               m_valiTree->hitTime[index]  = (*it_hvec)->hitTime();
00357               m_valiTree->hitx[index]     = (*it_hvec)->localPos().x();
00358               m_valiTree->hity[index]     = (*it_hvec)->localPos().y();
00359               m_valiTree->hitz[index]     = (*it_hvec)->localPos().z();
00360               m_valiTree->sensID[index]   = (*it_hvec)->sensDetId();
00361               m_valiTree->weight[index]   = (*it_hvec)->weight();
00362               
00363               // optical photon's ancestor's pdg
00364               if((*it_hvec)->ancestor().track()) {
00365                 m_valiTree->ancestorPdg[index] = (*it_hvec)->ancestor().track()->particle();
00366               }
00367               else {
00368                 m_valiTree->ancestorPdg[index] = 0;
00369               }
00370               //optical photon's wavelength
00371               const DayaBay::SimPmtHit* pmthit = static_cast<const DayaBay::SimPmtHit*>(*it_hvec);
00372               m_valiTree->wavelength[index]   = (*pmthit).wavelength();
00373               m_valiTree->polx[index]   = (*pmthit).pol().x();
00374               m_valiTree->poly[index]   = (*pmthit).pol().y();
00375               m_valiTree->polz[index]   = (*pmthit).pol().z();
00376               m_valiTree->px[index]   = (*pmthit).dir().x();
00377               m_valiTree->py[index]   = (*pmthit).dir().y();
00378               m_valiTree->pz[index]   = (*pmthit).dir().z();
00379               
00380               m_valiTree->SimHitsEntries = index+1;
00381               
00382             }
00383             else {
00384               warning()<< " Reached the max hit limit!!!!!" <<endl;
00385             }
00386           }
00387         }
00388       }
00389     } // end of pSimHeader
00390     
00392     //  if(0==1) {
00393     if(pGenHeader!=0) {
00394       m_valiTree->execKine=pGenHeader->execNumber();
00395       debug()<<"Generator name: "<<pGenHeader->generatorName()<<endreq;
00396       debug()<<"execNum: "<<pGenHeader->execNumber()<<endreq;
00397       
00398       const HepMC::GenEvent* event=pGenHeader->event();
00399       //  event->print();
00400       
00401       HepMC::GenEvent::particle_const_iterator p;
00402       int count=0;
00403       for ( p = event->particles_begin(); p!=event->particles_end(); ++p ) {      
00404         (*p)->print();
00405         if((*p)->production_vertex()) {   // only outgoing particle has a production vertex
00406           if(  (*p)->status() == 1  ||       // Normal track
00407                abs((*p)->status()) > 1000 ) {     // MuonProphet muon
00408             count++;
00409             
00410             if(count==1) {
00411               
00412               m_valiTree->trk1_pdgId=(*p)->pdg_id();
00413               
00414               m_valiTree->trk1_px=(*p)->momentum().px();
00415               m_valiTree->trk1_py=(*p)->momentum().py();
00416               m_valiTree->trk1_pz=(*p)->momentum().pz();
00417               m_valiTree->trk1_e =(*p)->momentum().e();
00418               
00419               m_valiTree->trk1_x=(*p)->production_vertex()->position().x();
00420               m_valiTree->trk1_y=(*p)->production_vertex()->position().y();
00421               m_valiTree->trk1_z=(*p)->production_vertex()->position().z();
00422               m_valiTree->trk1_t=(*p)->production_vertex()->position().t();
00423               
00424               debug()<<"trk1_pdgId: "<<m_valiTree->trk1_pdgId<<endreq;
00425               
00426               if(m_valiTree->trk1_pdgId==22) { // gamma
00427                 m_valiTree->trk1_ke=m_valiTree->trk1_e;
00428                 m_valiTree->trk1_ve=m_valiTree->trk1_e;
00429               }else if (m_valiTree->trk1_pdgId==11) { // e-
00430                 m_valiTree->trk1_ke=m_valiTree->trk1_e-m_e;
00431                 m_valiTree->trk1_ve=m_valiTree->trk1_e-m_e;
00432               }else if (m_valiTree->trk1_pdgId==-11) { // e+
00433                 m_valiTree->trk1_ke=m_valiTree->trk1_e-m_e;
00434                 m_valiTree->trk1_ve=m_valiTree->trk1_e+m_e;
00435               }else if (m_valiTree->trk1_pdgId==1000020040) { // alpha
00436                 m_valiTree->trk1_ke=m_valiTree->trk1_e-m_alpha;
00437                 m_valiTree->trk1_ve=m_valiTree->trk1_e-m_alpha;
00438               }
00439             }  // outgoing particle 1
00440             if(count==2) {
00441               m_valiTree->trk2_pdgId=(*p)->pdg_id();
00442               
00443               m_valiTree->trk2_px=(*p)->momentum().px();
00444               m_valiTree->trk2_py=(*p)->momentum().py();
00445               m_valiTree->trk2_pz=(*p)->momentum().pz();
00446               m_valiTree->trk2_e =(*p)->momentum().e();
00447               
00448               m_valiTree->trk2_x=(*p)->production_vertex()->position().x();
00449               m_valiTree->trk2_y=(*p)->production_vertex()->position().y();
00450               m_valiTree->trk2_z=(*p)->production_vertex()->position().z();
00451               m_valiTree->trk2_t=(*p)->production_vertex()->position().t();
00452               if(m_valiTree->trk2_pdgId==22) { // gamma
00453                 m_valiTree->trk2_ke=m_valiTree->trk2_e;
00454                 m_valiTree->trk2_ve=m_valiTree->trk2_e;
00455               }else if (m_valiTree->trk2_pdgId==11) { // e-
00456                 m_valiTree->trk2_ke=m_valiTree->trk2_e-m_e;
00457                 m_valiTree->trk2_ve=m_valiTree->trk2_e-m_e;
00458               }else if (m_valiTree->trk2_pdgId==-11) { // e+
00459                 m_valiTree->trk2_ke=m_valiTree->trk2_e-m_e;
00460                 m_valiTree->trk2_ve=m_valiTree->trk2_e+m_e;
00461               }else if (m_valiTree->trk2_pdgId==1000020040) { // alpha
00462                 m_valiTree->trk2_ke=m_valiTree->trk2_e-m_alpha;
00463                 m_valiTree->trk2_ve=m_valiTree->trk2_e-m_alpha;
00464               }
00465             }  // outgoing particle 2
00466           }
00467         } // end of outgoing particles
00468       }
00469     } // end of pGenHeader
00470 
00472     m_valiTree->n = m_counter;
00473     m_valiTree->fill();
00474   }
00475     
00476   delete pIStageData;
00477   pIStageData=0;
00478 
00479   if( (m_CurrTime-m_StartTime).GetSeconds()> (m_TimeRange/CLHEP::second) ) {
00480     info()<<m_TimeRange<<" seconds detector simulation finished. Issue scheduled stop."<<endreq;
00481     m_EvtLoopMgr->stopRun();
00482   }
00483 
00484   return StatusCode::SUCCESS;
00485 }

StatusCode Sim15::finalize ( ) [virtual]

Reimplemented from GaudiAlgorithm.

Definition at line 487 of file Sim15.cc.

00488 {
00489   if(m_monitor) {
00490     m_valiTree->close();
00491     delete m_valiTree;
00492   }
00493 
00494   return this->GaudiAlgorithm::finalize();
00495 }

std::string Sim15::m_TopStageName [private]

Fifteen begin.

Definition at line 40 of file Sim15.h.

int Sim15::m_TopStageNum [private]

Definition at line 41 of file Sim15.h.

IStage* Sim15::m_TopStage [private]

Definition at line 42 of file Sim15.h.

TimeStamp Sim15::m_StartTime [private]

Fifteen end.

Definition at line 45 of file Sim15.h.

TimeStamp Sim15::m_CurrTime [private]

Definition at line 46 of file Sim15.h.

double Sim15::m_TimeRange [private]

Definition at line 47 of file Sim15.h.

IEventProcessor* Sim15::m_EvtLoopMgr [private]

Definition at line 48 of file Sim15.h.

bool Sim15::m_monitor [private]

create a root tree

Definition at line 51 of file Sim15.h.

ValidationTree* Sim15::m_valiTree [private]

Definition at line 52 of file Sim15.h.

int Sim15::m_counter [private]

Definition at line 53 of file Sim15.h.

IStageDataManager* Sim15::m_sdmgr [private]

Definition at line 56 of file Sim15.h.


Public Member Functions
	Sim15 (const std::string &name, ISvcLocator *pSvcLocator)
virtual	~Sim15 ()
virtual StatusCode	initialize ()
virtual StatusCode	execute ()
virtual StatusCode	finalize ()
virtual StatusCode	sysExecute ()
void	put (IDataProviderSvc svc, DataObject object, const std::string &address, const bool useRootInTES=true) const
void	put (DataObject *object, const std::string &address, const bool useRootInTES=true) const
Gaudi::Utils::GetData< TYPE >::return_type	get (IDataProviderSvc *svc, const std::string &location, const bool useRootInTES=true) const
Gaudi::Utils::GetData< TYPE >::return_type	get (const std::string &location, const bool useRootInTES=true) const
TYPE *	getDet (IDataProviderSvc *svc, const std::string &location) const
TYPE *	getDet (const std::string &location) const
bool	exist (IDataProviderSvc *svc, const std::string &location, const bool useRootInTES=true) const
bool	exist (const std::string &location, const bool useRootInTES=true) const
bool	existDet (IDataProviderSvc *svc, const std::string &location) const
bool	existDet (const std::string &location) const
TYPE *	getOrCreate (IDataProviderSvc *svc, const std::string &location, const bool useRootInTES=true) const
TYPE *	getOrCreate (const std::string &location, const bool useRootInTES=true) const
bool	registerContext () const
INTupleSvc *	evtColSvc () const
IAlgContextSvc *	contextSvc () const
TOOL *	tool (const std::string &type, const std::string &name, const IInterface *parent=0, bool create=true) const
TOOL *	tool (const std::string &type, const IInterface *parent=0, bool create=true) const
SERVICE *	svc (const std::string &name, const bool create=true) const
IUpdateManagerSvc *	updMgrSvc () const
IDataProviderSvc *	fastContainersSvc () const
StatusCode	Error (const std::string &msg, const StatusCode st=StatusCode::FAILURE, const size_t mx=10) const
StatusCode	Warning (const std::string &msg, const StatusCode st=StatusCode::FAILURE, const size_t mx=10) const
StatusCode	Print (const std::string &msg, const StatusCode st=StatusCode::SUCCESS, const MSG::Level lev=MSG::INFO) const
StatusCode	Assert (const bool ok, const std::string &message="", const StatusCode sc=StatusCode(StatusCode::FAILURE, true)) const
StatusCode	Assert (const bool ok, const char *message, const StatusCode sc=StatusCode(StatusCode::FAILURE, true)) const
StatusCode	Exception (const std::string &msg, const GaudiException &exc, const StatusCode sc=StatusCode(StatusCode::FAILURE, true)) const
StatusCode	Exception (const std::string &msg, const std::exception &exc, const StatusCode sc=StatusCode(StatusCode::FAILURE, true)) const
StatusCode	Exception (const std::string &msg="no message", const StatusCode sc=StatusCode(StatusCode::FAILURE, true)) const
MsgStream &	msgStream (const MSG::Level level) const
MsgStream &	always () const
MsgStream &	fatal () const
MsgStream &	err () const
MsgStream &	error () const
MsgStream &	warning () const
MsgStream &	info () const
MsgStream &	debug () const
MsgStream &	verbose () const
MsgStream &	msg () const
const Statistics &	counters () const
StatEntity &	counter (const std::string &tag) const
MSG::Level	msgLevel () const
bool	msgLevel (const MSG::Level level) const
void	resetMsgStream () const
bool	typePrint () const
bool	propsPrint () const
bool	statPrint () const
bool	errorsPrint () const
long	printStat (const MSG::Level level=MSG::ALWAYS) const
long	printErrors (const MSG::Level level=MSG::ALWAYS) const
long	printProps (const MSG::Level level=MSG::ALWAYS) const
void	registerCondition (const std::string &condition, StatusCode(CallerClass::*mf)()=NULL)
void	registerCondition (const std::string &condition, CondType &condPtrDest, StatusCode(CallerClass::mf)()=NULL)
void	registerCondition (char condition, StatusCode(CallerClass::mf)()=NULL)
void	registerCondition (TargetClass condition, StatusCode(CallerClass::mf)()=NULL)
StatusCode	runUpdate ()
TransientFastContainer< T > *	getFastContainer (const std::string &location, typename TransientFastContainer< T >::size_type initial=0)
StatusCode	release (const IInterface *interface) const
unsigned long	release ()
const std::string &	context () const
const std::string &	rootInTES () const
double	globalTimeOffset () const
virtual StatusCode	sysStart ()
virtual StatusCode	sysInitialize ()
virtual StatusCode	sysReinitialize ()
virtual StatusCode	sysRestart ()
virtual StatusCode	sysStop ()
virtual StatusCode	sysFinalize ()
virtual StatusCode	sysBeginRun ()
virtual StatusCode	sysEndRun ()
virtual const std::string &	name () const
virtual const std::string &	version () const
virtual StatusCode	configure ()
virtual StatusCode	terminate ()
virtual StatusCode	start ()
virtual StatusCode	stop ()
virtual StatusCode	reinitialize ()
virtual StatusCode	restart ()
virtual bool	isExecuted () const
virtual void	setExecuted (bool state)
virtual void	resetExecuted ()
virtual StatusCode	beginRun ()
virtual StatusCode	endRun ()
virtual Gaudi::StateMachine::State	FSMState () const
virtual Gaudi::StateMachine::State	targetFSMState () const
virtual bool	isEnabled () const
virtual bool	filterPassed () const
virtual void	setFilterPassed (bool state)
StatusCode	service (const std::string &name, T *&psvc, bool createIf=true) const
StatusCode	service (const std::string &svcType, const std::string &svcName, T *&psvc) const
void	setOutputLevel (int level)
IAuditorSvc *	auditorSvc () const
IChronoStatSvc *	chronoSvc () const
IChronoStatSvc *	chronoStatService () const
IDataProviderSvc *	detSvc () const
IDataProviderSvc *	detDataService () const
IConversionSvc *	detCnvSvc () const
IConversionSvc *	detDataCnvService () const
IDataProviderSvc *	eventSvc () const
IDataProviderSvc *	evtSvc () const
IDataProviderSvc *	eventDataService () const
IConversionSvc *	eventCnvSvc () const
IConversionSvc *	eventDataCnvService () const
IHistogramSvc *	histoSvc () const
IHistogramSvc *	histogramDataService () const
IMessageSvc *	msgSvc () const
IMessageSvc *	messageService () const
INTupleSvc *	ntupleSvc () const
INTupleSvc *	ntupleService () const
IRndmGenSvc *	randSvc () const
IToolSvc *	toolSvc () const
IExceptionSvc *	exceptionSvc () const
ISvcLocator *	serviceLocator () const
ISvcLocator *	svcLoc () const
StatusCode	createSubAlgorithm (const std::string &type, const std::string &name, Algorithm *&pSubAlg)
std::vector< Algorithm * > *	subAlgorithms () const
virtual StatusCode	setProperty (const Property &p)
virtual StatusCode	setProperty (const std::string &s)
virtual StatusCode	setProperty (const std::string &n, const std::string &v)
StatusCode	setProperty (const std::string &name, const TYPE &value)
virtual StatusCode	getProperty (Property *p) const
virtual const Property &	getProperty (const std::string &name) const
virtual StatusCode	getProperty (const std::string &n, std::string &v) const
virtual const std::vector< Property * > &	getProperties () const
StatusCode	setProperties ()
Property *	declareProperty (const std::string &name, T &property, const std::string &doc="none") const
Property *	declareRemoteProperty (const std::string &name, IProperty *rsvc, const std::string &rname="") const
IMonitorSvc *	monitorSvc () const
void	declareInfo (const std::string &name, const T &var, const std::string &desc) const
void	declareInfo (const std::string &name, const std::string &format, const void *var, int size, const std::string &desc) const
unsigned long	addRef ()
StatusCode	queryInterface (const InterfaceID &riid, void **)
Static Public Member Functions
static const InterfaceID &	interfaceID ()
static const InterfaceID &	interfaceID ()
static const InterfaceID &	interfaceID ()
Public Attributes
	SUCCESS
	NO_INTERFACE
	VERSMISMATCH
	LAST_ERROR
Protected Types
typedef std::map< std::string, StatEntity >	Statistics
typedef std::map< std::string, unsigned int >	Counter
typedef std::vector< IAlgTool * >	AlgTools
typedef std::pair< IInterface *, std::string >	ServiceEntry
typedef std::vector< ServiceEntry >	Services
Protected Member Functions
StatusCode	releaseTool (const IAlgTool *tool) const
StatusCode	releaseSvc (const IInterface *svc) const
bool	isInitialized () const
bool	isFinalized () const
int	outputLevel () const
IntegerProperty &	outputLevelProperty ()
void	initOutputLevel (Property &prop)
Static Protected Attributes
static const bool	IgnoreRootInTES
static const bool	UseRootInTES
Private Attributes
std::string	m_TopStageName
	Fifteen begin.
int	m_TopStageNum
IStage *	m_TopStage
TimeStamp	m_StartTime
	Fifteen end.
TimeStamp	m_CurrTime
double	m_TimeRange
IEventProcessor *	m_EvtLoopMgr
bool	m_monitor
	create a root tree
ValidationTree *	m_valiTree
int	m_counter
IStageDataManager *	m_sdmgr

In This Package:

Sim15 Class Reference

Public Member Functions

Static Public Member Functions

Public Attributes

Protected Types

Protected Member Functions

Static Protected Attributes

Private Attributes

Detailed Description

Constructor & Destructor Documentation

Member Function Documentation

Member Data Documentation