/data3/calcul/jacquem/working_dir/Micromegas/micromegasFrameWork/src/analyse/lcio/simjob.cc File Reference

#include "lcio.h"
#include "IO/LCWriter.h"
#include "EVENT/LCIO.h"
#include "DATA/LCFloatVec.h"
#include "DATA/LCIntVec.h"
#include "IMPL/LCEventImpl.h"
#include "IMPL/LCRunHeaderImpl.h"
#include "IMPL/LCCollectionVec.h"
#include "IMPL/SimCalorimeterHitImpl.h"
#include "IMPL/SimTrackerHitImpl.h"
#include "IMPL/MCParticleImpl.h"
#include "IMPL/LCFlagImpl.h"
#include "IMPL/LCTOOLS.h"
#include "IMPL/TrackerRawDataImpl.h"
#include "IMPL/TrackerDataImpl.h"
#include "IMPL/TrackerPulseImpl.h"
#include "UTIL/LCRelationNavigator.h"
#include "UTIL/LCTime.h"
#include "UTIL/CellIDEncoder.h"
#include "UTIL/LCTypedVector.h"
#include "UTIL/LCSplitWriter.h"
#include <cstdlib>
#include <iostream>
#include <sstream>

Include dependency graph for simjob.cc:

Go to the source code of this file.

Defines
#define	WRITE_TRACKERRAWDATA   1
#define	WRITE_VTXRAWHITS   1
Functions
int	main (int argc, char **argv)
Variables
static const int	NRUN = 10
static const int	NEVENT = 10
static const int	NMCPART = 10
static const int	NHITS = 50
static string	FILEN = "simjob.slcio"

---

Define Documentation

#define WRITE_TRACKERRAWDATA   1

#define WRITE_VTXRAWHITS   1

---

Function Documentation

int main	(	int	argc,
		char **	argv
	)

Simple test program to demonstrate writing of data with lcio.

Definition at line 53 of file simjob.cc.

                                {
  
  try{
    
    
    // loop over runs
    for(int rn=0;rn<NRUN;rn++){
      
      // create sio writer
      LCWriter* lcWrt = LCFactory::getInstance()->createLCWriter()  ;

      //LCWriter* lcWrt = new LCSplitWriter( LCFactory::getInstance()->createLCWriter(), 20000 ) ;
      
      if( argc > 1 ) { FILEN = argv[1] ; }
      
      //      lcWrt->setCompressionLevel(0 ) ;

      if( rn==0 ){
        // turn off compression for first run ...
        lcWrt->setCompressionLevel( 0 ) ;             
        lcWrt->open( FILEN , LCIO::WRITE_NEW )  ;

      }else{
        lcWrt->setCompressionLevel( 9  ) ;  
        lcWrt->open( FILEN , LCIO::WRITE_APPEND )  ;
      }
      // NB: in order to test writing multiple files we create a new LCWriter
      // for every run even though we are in fact writing to one file only;
      // so for a simple job writing one file the 
      // 'createLCWriter/open' and 'close/delete' will be outside the run loop...


      LCRunHeaderImpl* runHdr = new LCRunHeaderImpl ; 
      runHdr->setRunNumber( rn ) ;
      
      string detName("D09TileHcal")  ;
      runHdr->setDetectorName( detName ) ;
      
      stringstream description ; 
      description << " run: " << rn <<" just for testing lcio  - no physics !" ;
      runHdr->setDescription( description.str()  ) ;
      
      string ecalName("ECAL007") ;
      runHdr->addActiveSubdetector( ecalName ) ;
      
      string tpcName("TPC4711") ;
      runHdr->addActiveSubdetector( tpcName ) ;
      

      // add some parameters to the run header 
//       StringVec sv1 ;
//       sv1.push_back("simjob.cc") ;
//       runHdr->parameters().setValues( "SimulationProgram" , sv1 ) ; 
      runHdr->parameters().setValue( "SimulationProgram" , "simjob.cc" ) ; 
      IntVec iv(3) ;
      iv[0] = 1 ;
      iv[1] = 2 ;
      iv[2] = 3 ;
      runHdr->parameters().setValues( "SomeIndices" , iv ) ; 
      
      lcWrt->writeRunHeader( runHdr ) ;
      
      // EventLoop - create some events and write them to the file
      for(int i=0;i<NEVENT;i++){
        
        // we need to use the implementation classes here 
        LCEventImpl*  evt = new LCEventImpl() ;
        
        
        evt->setRunNumber(  rn   ) ;
        evt->setEventNumber( i ) ;
        LCTime now ;
        evt->setTimeStamp( now.timeStamp()  ) ;
        evt->setDetectorName( detName ) ;
        
        evt->setWeight( 1.*rand()/RAND_MAX ) ;

        evt->parameters().setValue("Description"," event can have it's own set of parameters" ) ;
        evt->parameters().setValue("Thrust", (float) 0.671 ) ;

        FloatVec fv ;
        fv.push_back( 1.1 ) ;
        fv.push_back( 2.2 ) ;
        fv.push_back( 3.3 ) ;
        evt->parameters().setValues( "SomeNumbers" , fv ) ; 
        
        // create and add some mc particles 
        LCCollectionVec* mcVec = new LCCollectionVec( LCIO::MCPARTICLE )  ;
        
        // debug only - don't write MCParticles to output file:
        // mcVec->setTransient() ;

        // debug only - add the same particle to more than one collection
        //LCCollectionVec* mcVec2 = new LCCollectionVec( LCIO::MCPARTICLE )  ;

        MCParticleImpl* mom = new MCParticleImpl ;
        mom->setPDG( 1  ) ;
        float p0[3] = { 0. , 0. , 1000. } ;
        mom->setMomentum( p0 ) ;
        mom->setMass( 3.01 ) ;


        for(int j=0;j<NMCPART;j++){

          MCParticleImpl* mcp = new MCParticleImpl ;

          mcp->setPDG( 1000 * (j+1)  ) ;
          float p[3] = { j*1. , 4./1024. , 8./1024. } ;
          mcp->setMomentum( p ) ;
          mcp->setMass( .135 ) ;

          // create and add some daughters
          for(int k=0;k<3;k++){
            MCParticleImpl* d1 = new MCParticleImpl ;

            d1->setPDG( 1000 * (j+1) + 100 * (k+1)  ) ;
            float pd1[3] = { k*1. , 4.1 , 8.1 } ;
            d1->setMomentum( pd1 ) ;
            d1->setMass( .135 ) ;

            for(int l=0;l<2;l++){
              MCParticleImpl* d2 = new MCParticleImpl ;
              
              d2->setPDG( 1000 * (j+1) + 100 * (k+1) + 10 *  (l+1)  ) ;
              float pd2[3] = { l*1. , 0.41 , 4.1 } ;
              d2->setMomentum( pd2 ) ;
              d2->setMass( .135 ) ;
              
              double ep[3] = { 1.111111 , 2.2222222, 3.3333333 } ;
              d2->setEndpoint( ep ) ;
              //              d2->setSimulatorStatus( 1234 ) ;
              d2->setCreatedInSimulation(true) ;
              d2->setBackscatter(true)         ;
              d2->setDecayedInTracker(true)    ;
              d2->setDecayedInCalorimeter(false);
              d2->setHasLeftDetector(false)     ;
              d2->setStopped(true)             ;

              d2->addParent( d1 );
              mcVec->push_back( d2 ) ;

              // debug only - add the same particle to more than one collection
              //mcVec2->push_back( d2 ) ;
            }
            d1->addParent( mcp );
            mcVec->push_back( d1 ) ;
          }
          
          mcp->addParent( mom );
          mcVec->push_back( mcp ) ;
        }
        mcVec->push_back( mom ) ;

        // now add some calorimeter hits
        LCCollectionVec* calVec = new LCCollectionVec( LCIO::SIMCALORIMETERHIT )  ;
      
        // set flag for long format (including position )
        // and PDG and cellid1
        LCFlagImpl chFlag(0) ;
        chFlag.setBit( LCIO::CHBIT_LONG ) ;
        chFlag.setBit( LCIO::CHBIT_PDG ) ;
        calVec->setFlag( chFlag.getFlag()  ) ;
        
        std::string cellIDEncoding( "M:3,S-1:3,I:9,J:9,K-1:6") ;// old Mokka convention

//      std::string cellIDEncoding( "M:3,S-1:3,I:9,J:9,K-1:6,Bla:34:6") ;// for testing cellid1

        CellIDEncoder<SimCalorimeterHitImpl> b( cellIDEncoding , calVec ) ;

        for(int j=0;j<NHITS;j++){
          
          SimCalorimeterHitImpl* hit = new SimCalorimeterHitImpl ;
          
          hit->setEnergy( 3.1415 * rand()/RAND_MAX   )  ;
          
          float pos[3] = { 1.1* rand()/RAND_MAX , 2.2* rand()/RAND_MAX , 3.3* rand()/RAND_MAX } ;
          
          // cell indices
          b["M"] = j % 8 ;
          b["S-1"] = (j+2) % 8 ;
          b["I"] = j % 512 ;
          b["J"] = (j+128) % 512 ;
          b["K-1"] = (j+32) % 64 ;

          b.setCellID( hit ) ;

//        hit->setCellID0( b.lowWord()  ) ;
//        hit->setCellID1( b.highWord() ) ;
          
          hit->setPosition( pos ) ;
          
          calVec->push_back( hit ) ;
          
          // assign the hits randomly to MC particles
          float rn =  .99999*rand()/RAND_MAX ;
          int mcIndx = static_cast<int>( NMCPART * rn ) ;
          
          // in order to access a MCParticle,  we need a dynamic cast as the 
          // LCCollection returns an LCIOObject - this is like vectors in Java 
          hit->addMCParticleContribution(  dynamic_cast<MCParticle*>(mcVec->getElementAt( mcIndx )) , 
                                           0.314159, 0.1155 ) ; // no pdg
          
        }
        
        // -------- data can be modified as long as is not not made persistent --------

        for(int j=0;j<NHITS;j++){
          SimCalorimeterHitImpl* existingHit 
            = dynamic_cast<SimCalorimeterHitImpl*>( calVec->getElementAt(j) ) ; // << Ok now

          //        = dynamic_cast<SimCalorimeterHitImpl*>( (*calVec)[j] ) ;  // << not needed 
          
          existingHit->addMCParticleContribution( dynamic_cast<MCParticle*>
                                                  (mcVec->getElementAt(0)), 
                                                  0.1, 0. ) ;
        }

//      // ----- find the MCParticle with the largest contribution to the SimCalorimeterHits:
//      for(int j=0;j<NHITS;j++){

//        SimCalorimeterHit* sh =
//          dynamic_cast<SimCalorimeterHit*>( calVec->getElementAt(j) ) ; 

//        typedef std::map<MCParticle*,double>  MCPMap ; 
          
//        MCPMap mcpMap ;
          
//        for( int ii=0 ;ii< sh->getNMCContributions() ; ++ii){
//          mcpMap[  sh->getParticleCont(ii) ] += sh->getEnergyCont(ii) ;   
//        }
          
//        double eMax(0.) ; 
//        MCParticle* mcp ;
          
//        for( MCPMap::iterator it = mcpMap.begin() ;  it != mcpMap.end() ; ++it ){
            
//          if( it->second > eMax ) {
//            mcp = it->first ;
//            eMax = it->second ;
//          }
//        } 
// //     std::cout << " largest contribution " << eMax << " GeV from particle " 
// //               << mcp << std::endl ;
//      }

        // and finally some tracker hits
        // with some user extensions (4 floats and 2 ints) per track:
        // we just need to create parallel collections of float and int vectors
        LCCollectionVec* trkVec = new LCCollectionVec( LCIO::SIMTRACKERHIT )  ;
        LCCollectionVec* extFVec = new LCCollectionVec( LCIO::LCFLOATVEC )  ;
        LCCollectionVec* extIVec = new LCCollectionVec( LCIO::LCINTVEC )  ;

        LCFlagImpl thFlag(0) ;
        thFlag.setBit( LCIO::THBIT_MOMENTUM ) ;
        trkVec->setFlag( thFlag.getFlag()  ) ;
        

        LCTypedVector<MCParticle> mcpTV( mcVec ) ;

        CellIDEncoder<SimTrackerHitImpl> cd( "i:8,j:8,k:8" ,trkVec )  ;
        
        for(int j=0;j<NHITS;j++){
          
          SimTrackerHitImpl* hit = new SimTrackerHitImpl ;

          cd["i"] = j ;
          cd["j"] = j + 100 ;
          cd["k"] = j + 200 ;

          cd.setCellID( hit ) ;

          LCFloatVec* extF = new LCFloatVec ;
          LCIntVec*   extI = new LCIntVec ;
          
          //hit->setdEdx( 30e-9 ) ; 
          hit->setEDep( 30e-9 ) ; 

          double pos[3] = { 1.1* rand()/RAND_MAX , 2.2* rand()/RAND_MAX , 3.3* rand()/RAND_MAX } ;
          
          hit->setPosition( pos ) ; 
          
          // assign the hits randomly to MC particles
          float rn =  .99999*rand()/RAND_MAX ;
          int mcIndx = static_cast<int>( NMCPART * rn ) ;
          

//        hit->setMCParticle( dynamic_cast<MCParticle*>(mcVec->getElementAt( mcIndx ) ) ) ;
          hit->setMCParticle( mcpTV[ mcIndx ]  ) ;
          
          hit->setMomentum( 1. , 2. , 3. ) ; 
          hit->setPathLength( .042 ) ;

          // fill the extension vectors (4 floats, 2 ints)
          extF->push_back( 3.14159 ) ;  
          for(int k=0;k<3;k++) extF->push_back(  pos[k] * 0.1  ) ;

          extI->push_back( 123456789 ) ;
          extI->push_back( mcIndx ) ;

          // add the hit and the extensions to their corresponding collections
          trkVec->push_back( hit ) ;
          extFVec->push_back( extF ) ;
          extIVec->push_back( extI ) ;
        }
        
        
        // add all collections to the event
        evt->addCollection( mcVec , "MCParticle" ) ;

        //deubg only 
        //evt->addCollection( mcVec2, "MCParticle2" ) ;

        evt->addCollection( calVec , ecalName ) ;
        evt->addCollection( trkVec , tpcName ) ;
        evt->addCollection( extFVec , tpcName+"UserFloatExtension" ) ;
        evt->addCollection( extIVec , tpcName+"UserIntExtension" ) ;
        
        // test: add a collection for one event only:
//      if( rn == NRUN-1 && i == 0 ) { // first event o last run
        if( rn == 1 && i == 0 ) { // first event o last run
          LCCollectionVec* addExtVec = new LCCollectionVec( LCIO::LCFLOATVEC )  ;
          LCFloatVec* addExt = new LCFloatVec ;
          addExt->push_back( 1. );
          addExt->push_back( 2. );
          addExt->push_back( 3. );
          addExt->push_back( 4. );
          addExtVec->push_back( addExt ) ;
          evt->addCollection( addExtVec , "AdditionalExtension" ) ;
        }
        //---- write a subset of MCParticle to the event ------
        LCCollectionVec* mcSubVec = new LCCollectionVec( LCIO::MCPARTICLE )  ;
        mcSubVec->setSubset(true) ;
        
        for(int j=0;j< mcVec->getNumberOfElements() ; j++ ){
          
          MCParticle* p = dynamic_cast< MCParticle*>( mcVec->getElementAt(j) )  ;
          if( p->getDaughters().size() == 0 )
            mcSubVec->addElement( p ) ;
        }
        evt->addCollection( mcSubVec , "FinalMCParticles" ) ;
        //-----------------------------------------------------



        // even though this is a simjob we can store 'real data' objects :)

#define WRITE_TRACKERRAWDATA 1
#ifdef WRITE_TRACKERRAWDATA
        //--- write some new TPC raw data collections to the file 
        LCCollectionVec* tpcRawVec = new LCCollectionVec( LCIO::TRACKERRAWDATA )  ;
        
        for(int j=0;j<NHITS;j++){

          TrackerRawDataImpl* tpcRaw = new TrackerRawDataImpl ;
          
          tpcRaw->setCellID0( j ) ;
          tpcRaw->setTime( -j  ) ;
          
          if( j % 2 ) { // test two ways of setting the charge
            ShortVec adcValues ;
            adcValues.push_back( 42 ) ;
            adcValues.push_back( 43 ) ;
            adcValues.push_back( 44 ) ;
            adcValues.push_back( 45 ) ;
            tpcRaw->setADCValues( adcValues ) ;
          } else {
            tpcRaw->adcValues().push_back( 42 ) ;
            tpcRaw->adcValues().push_back( 43 ) ;
            tpcRaw->adcValues().push_back( 44 ) ;
            tpcRaw->adcValues().push_back( 45 ) ;
          }
          tpcRawVec->addElement( tpcRaw ) ;
        }
        evt->addCollection( tpcRawVec , "TrackerRawDataExample" ) ;

        //---- test new relation navigator object
        LCRelationNavigator relNav( LCIO::TRACKERRAWDATA, LCIO::SIMTRACKERHIT ) ;
        
        for(int j=0;j<NHITS;j++){
          relNav.addRelation( tpcRawVec->getElementAt(j) , trkVec->getElementAt(j) , 0.42 ) ;
          
//        tpcRawVec->getElementAt(j)->link<MyTrackLink>() = 
//        (*tpcRawVec)[j]->link< MyTrackLink >()  =
//          dynamic_cast<SimTrackerHit*>( (*trkVec)[j] );

        }
        evt->addCollection( relNav.createLCCollection() , "TPCRawFADCMCTruth" ) ;
        

        //------ corrected data
        
        LCCollectionVec* tpcCorrectedVec = new LCCollectionVec( LCIO::TRACKERDATA )  ;
        
        for(int j=0;j<NHITS;j++){

          TrackerDataImpl* tpcCorrected = new TrackerDataImpl ;
          
          tpcCorrected->setCellID0( j ) ;
          tpcCorrected->setTime( -j  ) ;
          
          tpcCorrected->chargeValues().push_back( 42.12345 ) ;
          tpcCorrected->chargeValues().push_back( 43.09876 ) ;
          tpcCorrected->chargeValues().push_back( 44.12345 ) ;
          tpcCorrected->chargeValues().push_back( 45.09876 ) ;

          tpcCorrectedVec->addElement( tpcCorrected ) ;
        }
        evt->addCollection( tpcCorrectedVec , "TrackerDataExample" ) ;
        
        // ------ pulses

        LCCollectionVec* tpcPulseVec = new LCCollectionVec( LCIO::TRACKERPULSE )  ;
        
        IntVec qualityBits ;
        qualityBits.push_back(0) ;
        qualityBits.push_back(1) ;

        StringVec bitNames ;
        bitNames.push_back("GOOD") ;
        bitNames.push_back("BAD") ;

        tpcPulseVec->parameters().setValues("TrackerPulseQualityNames", bitNames ); 
        tpcPulseVec->parameters().setValues("TrackerPulseQualityValues", qualityBits ); 
        
        for(int j=0;j<NHITS;j++){

          TrackerPulseImpl* tpcPulse = new TrackerPulseImpl ;
          
          tpcPulse->setCellID0( j ) ;
          tpcPulse->setTime( 3.1415 + 0.1 * j  ) ;
          tpcPulse->setCharge( 3.1415 - 0.1 * j  ) ;

          if( j % 2 ) {
            tpcPulse->setQualityBit( qualityBits[0] ) ;
          } else {

            tpcPulse->setQualityBit( qualityBits[1] ) ;
            
            TrackerData* corr = 
              dynamic_cast<TrackerData*> ( tpcCorrectedVec->getElementAt(j) ) ; 
            tpcPulse->setTrackerData( corr ) ;
          }

          tpcPulseVec->addElement( tpcPulse ) ;
        }
        evt->addCollection( tpcPulseVec , "TrackerPulseExample" ) ;

        //-----------------------------------------------------
#endif // WRITE_TRACKERRAWDATA

#define WRITE_VTXRAWHITS 1
#ifdef WRITE_VTXRAWHITS

        //--- write some VTX raw hits  to the file - using the TrackerPulse
        LCCollectionVec* vtxRawVec = new LCCollectionVec( LCIO::TRACKERPULSE )  ;
        
        for(int j=0;j<NHITS;j++){

          TrackerPulseImpl* vtxRaw = new TrackerPulseImpl ;
          
          vtxRaw->setCellID0( 0xBebaFeca ) ;
          vtxRaw->setCellID1( 0xCafeBabe ) ;
          vtxRaw->setTime( j  ) ;
          vtxRaw->setCharge( 42 + j  ) ;
          
          vtxRawVec->addElement( vtxRaw ) ;
        }
        evt->addCollection( vtxRawVec , "SiliconRawHitExample" ) ;

        //-----------------------------------------------------
#endif // WRITE_VTXRAWHITS



        // write the event to the file
        lcWrt->writeEvent( evt ) ;
        
        // dump the event to the screen 
        LCTOOLS::dumpEvent( evt ) ;

        // ------------ IMPORTANT ------------- !
        // we created the event so we need to delete it ...
        delete evt ;
        // -------------------------------------

        //  dont use this (compatibility with Fortran simjob.F)
        //  if( ! (i%100) ) cout << ". " << flush  ;
        
      } // evt loop

      delete runHdr ;

      lcWrt->close() ;
      delete lcWrt ;

    } // run loop
    
    cout << endl 
         << " created  " << NRUN << " runs with  " << NRUN*NEVENT << " events"  
         << endl << endl ;
    
    
    // ----- some testing code for the lctypename template -----
//     std::cout << lctypename<MCParticle>() << std::endl ;
//     std::cout << lctypename<MCParticleImpl>() << std::endl ;
    
//     std::cout << lctypename<ReconstructedParticle>() << std::endl ;
    
//     std::cout << lctypename<SimTrackerHit>() << std::endl ;
//     std::cout << lctypename<SimTrackerHitImpl>() << std::endl ;
    
//     SimTrackerHitImpl sth ;
//     std::cout <<  lctypename( &sth ) << std::endl ;
    
//     LCObject* obj =   &sth ;
//     std::cout <<  lctypename( obj ) << std::endl ;
    

 
  
  } catch( Exception& ex){

    cout << " an excpetion occured: " << endl ;
    cout << "  " << ex.what() << endl ;
    return 1 ;
  }

  return 0 ;
}

---

Variable Documentation

const int NRUN = 10 [static]

Definition at line 40 of file simjob.cc.

const int NEVENT = 10 [static]

Definition at line 41 of file simjob.cc.

const int NMCPART = 10 [static]

Definition at line 42 of file simjob.cc.

const int NHITS = 50 [static]

Definition at line 43 of file simjob.cc.

string FILEN = "simjob.slcio" [static]

Definition at line 45 of file simjob.cc.

---