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gen::TauolaInterface Class Reference

#include <TauolaInterface.h>

List of all members.

Public Member Functions

HepMC::GenEvent * decay (HepMC::GenEvent *)
void disablePolarization ()
void enablePolarization ()
void init (const edm::EventSetup &)
const std::vector< int > & operatesOnParticles ()
void setPSet (const edm::ParameterSet &)
void statistics ()
 ~TauolaInterface ()

Static Public Member Functions

static TauolaInterfacegetInstance ()

Private Member Functions

void decodeMDTAU (int)
float flat ()
void selectDecayByMDTAU ()
int selectHadronic ()
int selectLeptonic ()
 TauolaInterface ()

Private Attributes

std::vector< int > fHadronModes
bool fIsInitialized
std::vector< int > fLeptonModes
int fMDTAU
std::vector< int > fPDGs
edm::ESHandle
< HepPDT::ParticleDataTable
fPDGTable
bool fPolarization
edm::ParameterSetfPSet
CLHEP::HepRandomEngine * fRandomEngine
std::vector< double > fScaledHadronBrRatios
std::vector< double > fScaledLeptonBrRatios
bool fSelectDecayByEvent

Static Private Attributes

static TauolaInterfacefInstance = 0

Friends

void gen::ranmar_ (float *rvec, int *lenv)
double gen::TauolappInterface_RandGetter ()

Detailed Description

Definition at line 64 of file TauolaInterface.h.


Constructor & Destructor Documentation

TauolaInterface::~TauolaInterface ( )

Definition at line 379 of file TauolaInterface.cc.

References fInstance, and fPSet.

{

   if ( fPSet != 0 ) delete fPSet;
   if ( fInstance == this ) fInstance = 0;

}
TauolaInterface::TauolaInterface ( ) [private]

Definition at line 323 of file TauolaInterface.cc.

References Exception, fRandomEngine, and edm::Service< T >::isAvailable().

Referenced by getInstance().

   : fPolarization(false), fPSet(0), fIsInitialized(false), fMDTAU(-1), fSelectDecayByEvent(false)
{
   
   Service<RandomNumberGenerator> rng;
   if(!rng.isAvailable()) {
    throw cms::Exception("Configuration")
       << "The RandomNumberProducer module requires the RandomNumberGeneratorService\n"
          "which appears to be absent.  Please add that service to your configuration\n"
          "or remove the modules that require it." << std::endl;
   }
   
   fRandomEngine = &rng->getEngine();

}

Member Function Documentation

HepMC::GenEvent * TauolaInterface::decay ( HepMC::GenEvent *  evt)

Definition at line 499 of file TauolaInterface.cc.

References abs, fIsInitialized, fPDGTable, fSelectDecayByEvent, configurableAnalysis::GenParticle, create_public_lumi_plots::log, p1, RecoTau_DiTaus_pt_20-420_cfg::ParticleID, mix_2012_Summer_inTimeOnly_cff::prob, gen::ranmar_(), and selectDecayByMDTAU().

Referenced by gen::ExternalDecayDriver::decay(), and ParticleReplacerClass::produce().

{
      
   if ( !fIsInitialized ) return evt;
   
   int NPartBefore = evt->particles_size();
   int NVtxBefore  = evt->vertices_size();
   
   // what do we do if Hep::GenEvent size is larger than 10K ???
   // Tauola (& Photos, BTW) can only handle up to 10K via HEPEVT,
   // and in case of CMS, it's only up to 4K !!!
   //
   // if ( NPartBefore > 10000 ) return evt;
   //
   
   // override decay mode if needs be
   if ( fSelectDecayByEvent )
   {
      selectDecayByMDTAU();
   }
   
    //construct tmp TAUOLA event
    //
    TauolaHepMCEvent * t_event = new TauolaHepMCEvent(evt);
   
    // another option: if one lets Pythia or another master gen to decay taus, 
    //                 we have to undecay them first
    // t_event->undecayTaus();
    
    // run Tauola on the tmp event - HepMC::GenEvernt will be MODIFIED !!!
    //
    t_event->decayTaus();
    
    // delet tmp Tauola event
    //
    delete t_event; 
    
    // do we also need to apply the lifetime and vtx position shift ??? 
    // (see TauolaInterface, for example)
    //
    // NOTE: the procedure ASSYMES that vertex barcoding is COUNTIUOUS/SEQUENTIAL,
    // and that the abs(barcode) corresponds to vertex "plain indexing"
    //
    for ( int iv=NVtxBefore+1; iv<=evt->vertices_size(); iv++ )
    {
       HepMC::GenVertex* GenVtx = evt->barcode_to_vertex(-iv);
       HepMC::GenParticle* GenPart = *(GenVtx->particles_in_const_begin());
       HepMC::GenVertex* ProdVtx = GenPart->production_vertex();
       HepMC::FourVector PMom = GenPart->momentum();
       double mass = GenPart->generated_mass();
       const HepPDT::ParticleData* 
             PData = fPDGTable->particle(HepPDT::ParticleID(abs(GenPart->pdg_id()))) ;
       double lifetime = PData->lifetime().value();
       float prob = 0.;
       int length=1;
       ranmar_(&prob,&length);
       double ct = -lifetime * std::log(prob);
       double VxDec = GenVtx->position().x();
       VxDec += ct * (PMom.px()/mass);
       VxDec += ProdVtx->position().x();
       double VyDec = GenVtx->position().y();
       VyDec += ct * (PMom.py()/mass);
       VyDec += ProdVtx->position().y();
       double VzDec = GenVtx->position().z();
       VzDec += ct * (PMom.pz()/mass);
       VzDec += ProdVtx->position().z();
       double VtDec = GenVtx->position().t();
       VtDec += ct * (PMom.e()/mass);
       VtDec += ProdVtx->position().t();
       GenVtx->set_position( HepMC::FourVector(VxDec,VyDec,VzDec,VtDec) ); 
       //
       // now find decay products with funky barcode, weed out and replace with clones of sensible barcode
       // we can NOT change the barcode while iterating, because iterators do depend on the barcoding
       // thus we have to take a 2-step procedure
       //
       std::vector<int> BCodes;
       BCodes.clear();
       for (HepMC::GenVertex::particle_iterator pitr= GenVtx->particles_begin(HepMC::children);
                                               pitr != GenVtx->particles_end(HepMC::children); ++pitr) 
       {
          if ( (*pitr)->barcode() > 10000 )
          {
             BCodes.push_back( (*pitr)->barcode() );
          }
       }
       if ( BCodes.size() > 0 )
       {
          for ( size_t ibc=0; ibc<BCodes.size(); ibc++ )
          {
             HepMC::GenParticle* p1 = evt->barcode_to_particle( BCodes[ibc] );
             int nbc = p1->barcode() - 10000 + NPartBefore;
             p1->suggest_barcode( nbc );
          }
       }             
    }
        
    return evt;
      
}
void TauolaInterface::decodeMDTAU ( int  mdtau) [private]

Definition at line 604 of file TauolaInterface.cc.

References fHadronModes, fLeptonModes, fScaledHadronBrRatios, fScaledLeptonBrRatios, fSelectDecayByEvent, i, and taubra_.

Referenced by init().

{

   // Note-1:
   // I have to hack the common block directly because set<...>DecayMode(...)
   // only changes it in the Tauola++ instance but does NOT passes it over
   // to the Fortran core - this it does only one, via initialize() stuff...
   //
   // So I'll do both ways of settings, just for consistency...
   // but I probably need to communicate it to the Tauola(++) team...
   //
   
   // Note-2: 
   // originally, the 1xx settings are meant for tau's from hard event,
   // and the 2xx settings are for any tau in the event record;
   //
   // later one, we'll have to take this into account...
   // but first I'll have to sort out what happens in the 1xx case
   // to tau's coming outside of hard event (if any in the record)   
   //
   
   if ( mdtau == 101 || mdtau == 201 )
   {
      // override with electron mode for both tau's
      //
      jaki_.jak1 = 1;
      jaki_.jak2 = 1;
      Tauola::setSameParticleDecayMode( 1 ) ;
      Tauola::setOppositeParticleDecayMode( 1 ) ;
      return;
   }
   
   if ( mdtau == 102 || mdtau == 202 )
   {
      // override with muon mode for both tau's
      //
      jaki_.jak1 = 2;
      jaki_.jak2 = 2;
      Tauola::setSameParticleDecayMode( 2 ) ;
      Tauola::setOppositeParticleDecayMode( 2 ) ;
      return;
   }

   if ( mdtau == 111 || mdtau == 211 )
   {
      // override with electron mode for 1st tau 
      // and any mode for 2nd tau
      //
      jaki_.jak1 = 1;
      jaki_.jak2 = 0;
      Tauola::setSameParticleDecayMode( 1 ) ;
      Tauola::setOppositeParticleDecayMode( 0 ) ;
      return;
   }

   if ( mdtau == 112 || mdtau == 212 )
   {
      // override with muon mode for the 1st tau 
      // and any mode for the 2nd tau
      //
      jaki_.jak1 = 2;
      jaki_.jak2 = 0;
      Tauola::setSameParticleDecayMode( 2 ) ;
      Tauola::setOppositeParticleDecayMode( 0 ) ;
      return;
   }
   
   if ( mdtau == 121 || mdtau == 221 )
   {
      // override with any mode for the 1st tau 
      // and electron mode for the 2nd tau
      //
      jaki_.jak1 = 0;
      jaki_.jak2 = 1;
      Tauola::setSameParticleDecayMode( 0 ) ;
      Tauola::setOppositeParticleDecayMode( 1 ) ;
      return;
   }
   
   if ( mdtau == 122 || mdtau == 222 )
   {
      // override with any mode for the 1st tau 
      // and muon mode for the 2nd tau
      //
      jaki_.jak1 = 0;
      jaki_.jak2 = 2;
      Tauola::setSameParticleDecayMode( 0 ) ;
      Tauola::setOppositeParticleDecayMode( 2 ) ;
      return;
   }

   if ( mdtau == 140 || mdtau == 240 )
   {
      // override with pi+/- nutau mode for both tau's 
      //
      jaki_.jak1 = 3;
      jaki_.jak2 = 3;
      Tauola::setSameParticleDecayMode( 3 ) ;
      Tauola::setOppositeParticleDecayMode( 3 ) ;
      return;
   }

   if ( mdtau == 141 || mdtau == 241 )
   {
      // override with pi+/- nutau mode for the 1st tau 
      // and any mode for the 2nd tau
      //
      jaki_.jak1 = 3;
      jaki_.jak2 = 0;
      Tauola::setSameParticleDecayMode( 3 ) ;
      Tauola::setOppositeParticleDecayMode( 0 ) ;
      return;
   }

   if ( mdtau == 142 || mdtau == 242 )
   {
      // override with any mode for the 1st tau 
      // and pi+/- nutau mode for 2nd tau
      //
      jaki_.jak1 = 0;
      jaki_.jak2 = 3;
      Tauola::setSameParticleDecayMode( 0 ) ;
      Tauola::setOppositeParticleDecayMode( 3 ) ;
      return;
   }
   
   // OK, we come here for semi-inclusive modes
   //
   
   // First of all, leptons and hadron modes sums
   //
   // re-scale branching ratios, just in case...
   //
   double sumBra = 0;
   
   // the number of decay modes is hardcoded at 22 because that's what it is right now in Tauola
   // in the future, perhaps an asscess method would be useful - communicate to Tauola team...
   //
   
   for ( int i=0; i<22; i++ )
   {
      sumBra += taubra_.gamprt[i];
   }
   if ( sumBra == 0. ) return ; // perhaps need to throw ?
   for ( int i=0; i<22; i++ )
   {
      double newBra = taubra_.gamprt[i] / sumBra;
      Tauola::setTauBr( i+1, newBra ); 
   }
   sumBra = 1.0;
   
   double sumLeptonBra = taubra_.gamprt[0] + taubra_.gamprt[1];
   double sumHadronBra = sumBra - sumLeptonBra;
   
   for ( int i=0; i<2; i++ )
   {
      fLeptonModes.push_back( i+1 );
      fScaledLeptonBrRatios.push_back( (taubra_.gamprt[i]/sumLeptonBra) );  
   }
   for ( int i=2; i<22; i++ )
   {
      fHadronModes.push_back( i+1 );
      fScaledHadronBrRatios.push_back( (taubra_.gamprt[i]/sumHadronBra) ); 
   }

   fSelectDecayByEvent = true;
   return;
      
}
void gen::TauolaInterface::disablePolarization ( ) [inline]

Definition at line 75 of file TauolaInterface.h.

References fPolarization.

{ fPolarization = false; return; }
void gen::TauolaInterface::enablePolarization ( ) [inline]

Definition at line 74 of file TauolaInterface.h.

References fPolarization.

{ fPolarization = true; return; }
float TauolaInterface::flat ( void  ) [private]

Definition at line 476 of file TauolaInterface.cc.

References Exception, fIsInitialized, fPSet, and fRandomEngine.

Referenced by gen::ranmar_(), selectLeptonic(), and gen::TauolappInterface_RandGetter().

{

   if ( !fPSet )
   {
      // throw
      throw cms::Exception("TauolaInterfaceError")
         << "Attempt to run random number generator of un-initialized Tauola\n"
         << std::endl;   
   }
   
   if ( !fIsInitialized ) 
   {
      // throw
      throw cms::Exception("TauolaInterfaceError")
         << "Attempt to run random number generator of un-initialized Tauola\n"
         << std::endl;   
   }
   
   return fRandomEngine->flat();

}
TauolaInterface * TauolaInterface::getInstance ( ) [static]
void TauolaInterface::init ( const edm::EventSetup es)

Definition at line 403 of file TauolaInterface.cc.

References decodeMDTAU(), Exception, fIsInitialized, fMDTAU, fPDGs, fPDGTable, fPolarization, fPSet, edm::EventSetup::getData(), edm::ParameterSet::getParameter(), and gen::TauolappInterface_RandGetter().

Referenced by ParticleReplacerClass::beginRun(), and gen::ExternalDecayDriver::init().

{
   
   if ( fIsInitialized ) return; // do init only once
   
   if ( fPSet == 0 ) 
   {

      throw cms::Exception("TauolaInterfaceError")
         << "Attempt to initialize Tauola with an empty ParameterSet\n"
         << std::endl;   
   }
   
   fIsInitialized = true;
      
   es.getData( fPDGTable ) ;

   Tauola::setDecayingParticle(15);
   // --> ??? Tauola::setRadiation(false);

   // polarization switch 
   //
   // fPolarization = fPSet->getParameter<bool>("UseTauolaPolarization") ? 1 : 0 ;
   fPolarization = fPSet->getParameter<bool>("UseTauolaPolarization");
   
   // read tau decay mode switches
   //
   ParameterSet cards = fPSet->getParameter< ParameterSet >("InputCards");
   
   fMDTAU = cards.getParameter< int >( "mdtau" );

   if ( fMDTAU == 0 || fMDTAU == 1 )
   {
      Tauola::setSameParticleDecayMode( cards.getParameter< int >( "pjak1" ) ) ;
      Tauola::setOppositeParticleDecayMode( cards.getParameter< int >( "pjak2" ) ) ;
   }

   Tauola::setTauLifetime(0.0);
   Tauola::spin_correlation.setAll(fPolarization);

   // some more options, copied over from an example 
   // - maybe will use later...
   //
   //Tauola::setEtaK0sPi(0,0,0); // switches to decay eta K0_S and pi0 1/0 on/off. 
   //

//
//   const HepPDT::ParticleData* 
//         PData = fPDGTable->particle(HepPDT::ParticleID( abs(Tauola::getDecayingParticle()) )) ;
//   double lifetime = PData->lifetime().value();
//   Tauola::setTauLifetime( lifetime );

   fPDGs.push_back( Tauola::getDecayingParticle() );

   Tauola::setRandomGenerator(&gen::TauolappInterface_RandGetter);         
   Tauola::initialize();

   Tauola::spin_correlation.setAll(fPolarization);// Tauola switches this on during Tauola::initialise(); so we add this here to keep it on/off

   // override decay modes if needs be
   //
   // we have to do it AFTER init because otherwises branching ratios are NOT filled in
   //
   if ( fMDTAU != 0 && fMDTAU != 1 )
   {
      decodeMDTAU( fMDTAU );
   }

   Log::LogWarning(false);
   
   return;
}
const std::vector<int>& gen::TauolaInterface::operatesOnParticles ( ) [inline]

Definition at line 77 of file TauolaInterface.h.

References fPDGs.

Referenced by gen::ExternalDecayDriver::init().

{ return fPDGs; }
void TauolaInterface::selectDecayByMDTAU ( ) [private]

Definition at line 774 of file TauolaInterface.cc.

References fMDTAU, alignBH_cfg::mode, selectHadronic(), and selectLeptonic().

Referenced by decay().

{

   
   if ( fMDTAU == 100 || fMDTAU == 200 )
   {
      int mode = selectLeptonic();
      jaki_.jak1 = mode;
      Tauola::setSameParticleDecayMode( mode );
      mode = selectLeptonic();
      jaki_.jak2 = mode;
      Tauola::setOppositeParticleDecayMode( mode );
      return ;
   }
   
   int modeL = selectLeptonic();
   int modeH = selectHadronic();
   
   if ( fMDTAU == 110 || fMDTAU == 210 )
   {
      jaki_.jak1 = modeL;
      jaki_.jak2 = 0;
      Tauola::setSameParticleDecayMode( modeL );
      Tauola::setOppositeParticleDecayMode( 0 );
      return ;
   }
   
   if ( fMDTAU == 120 || fMDTAU == 22 )
   {
      jaki_.jak1 = 0;
      jaki_.jak2 = modeL;
      Tauola::setSameParticleDecayMode( 0 );
      Tauola::setOppositeParticleDecayMode( modeL );
      return;      
   }
   
   if ( fMDTAU == 114 || fMDTAU == 214 )
   {
      jaki_.jak1 = modeL;
      jaki_.jak2 = modeH;
      Tauola::setSameParticleDecayMode( modeL );
      Tauola::setOppositeParticleDecayMode( modeH );
      return;      
   }

   if ( fMDTAU == 124 || fMDTAU == 224 )
   {
      jaki_.jak1 = modeH;
      jaki_.jak2 = modeL;
      Tauola::setSameParticleDecayMode( modeH );
      Tauola::setOppositeParticleDecayMode( modeL );
      return;      
   }

   if ( fMDTAU == 115 || fMDTAU == 215 )
   {
      jaki_.jak1 = 1;
      jaki_.jak2 = modeH;
      Tauola::setSameParticleDecayMode( 1 );
      Tauola::setOppositeParticleDecayMode( modeH );
      return;      
   }

   if ( fMDTAU == 125 || fMDTAU == 225 )
   {
      jaki_.jak1 = modeH;
      jaki_.jak2 = 1;
      Tauola::setSameParticleDecayMode( modeH );
      Tauola::setOppositeParticleDecayMode( 1 );
      return;      
   }

   if ( fMDTAU == 116 || fMDTAU == 216 )
   {
      jaki_.jak1 = 2;
      jaki_.jak2 = modeH;
      Tauola::setSameParticleDecayMode( 2 );
      Tauola::setOppositeParticleDecayMode( modeH );
      return;      
   }

   if ( fMDTAU == 126 || fMDTAU == 226 )
   {
      jaki_.jak1 = modeH;
      jaki_.jak2 = 2;
      Tauola::setSameParticleDecayMode( modeH );
      Tauola::setOppositeParticleDecayMode( 2 );
      return;      
   }

   if ( fMDTAU == 130 || fMDTAU == 230 )
   {
      jaki_.jak1 = modeH;
      jaki_.jak2 = selectHadronic();
      Tauola::setSameParticleDecayMode( modeH );
      Tauola::setOppositeParticleDecayMode( jaki_.jak2 );
      return;      
   }

   if ( fMDTAU == 131 || fMDTAU == 231 )
   {
      jaki_.jak1 = modeH;
      jaki_.jak2 = 0;
      Tauola::setSameParticleDecayMode( modeH );
      Tauola::setOppositeParticleDecayMode( 0 );
      return;      
   }

   if ( fMDTAU == 132 || fMDTAU == 232 )
   {
      jaki_.jak1 = 0;
      jaki_.jak2 = modeH;
      Tauola::setSameParticleDecayMode( 0 );
      Tauola::setOppositeParticleDecayMode( modeH );
      return;      
   }
   
   // unlikely that we get here on unknown mdtau 
   // - there's a protection earlier
   // but if we do, just set defaults
   // probably need to spit a warning...
   //
   Tauola::setSameParticleDecayMode( 0 );
   Tauola::setOppositeParticleDecayMode( 0 );
      
   return;
   

}
int TauolaInterface::selectHadronic ( ) [private]

Definition at line 921 of file TauolaInterface.cc.

References fHadronModes, fScaledHadronBrRatios, i, mix_2012_Summer_inTimeOnly_cff::prob, and gen::ranmar_().

Referenced by selectDecayByMDTAU().

{

   float prob = 0.;
   int len = 1;
   ranmar_(&prob,&len);
   
   double sumBra = fScaledHadronBrRatios[0];
   if ( prob > 0. && prob <= sumBra ) 
   {
      return fHadronModes[0];
   }
   else
   {
      int NN = fScaledHadronBrRatios.size();
      for ( int i=1; i<NN; i++ )
      {
         if ( prob > sumBra && prob <= (sumBra+fScaledHadronBrRatios[i]) ) 
         {
            return fHadronModes[i];
         }
         sumBra += fScaledHadronBrRatios[i];
      }
   }
   
   return 0;

}
int TauolaInterface::selectLeptonic ( ) [private]

Definition at line 904 of file TauolaInterface.cc.

References flat(), fScaledLeptonBrRatios, and mix_2012_Summer_inTimeOnly_cff::prob.

Referenced by selectDecayByMDTAU().

{
   
   float prob = flat();
   
   if ( prob > 0. && prob <= fScaledLeptonBrRatios[0] ) 
   {
      return 1;
   }
   else if ( prob > fScaledLeptonBrRatios[1] && prob <=1. )
   {
      return 2;
   }
      
   return 0;
}
void TauolaInterface::setPSet ( const edm::ParameterSet pset)

Definition at line 387 of file TauolaInterface.cc.

References Exception, and fPSet.

Referenced by gen::ExternalDecayDriver::ExternalDecayDriver(), ParticleReplacerClass::ParticleReplacerClass(), and ParticleReplacerParticleGun::ParticleReplacerParticleGun().

{

   if ( fPSet != 0 ) 
   {
      throw cms::Exception("TauolaInterfaceError")
         << "Attempt to override Tauola an existing ParameterSet\n"
         << std::endl;   
   }
   
   fPSet = new ParameterSet(pset);
   
   return;

}
void TauolaInterface::statistics ( )

Definition at line 599 of file TauolaInterface.cc.

Referenced by ParticleReplacerClass::endJob(), and gen::ExternalDecayDriver::statistics().

{
   return;
}

Friends And Related Function Documentation

void gen::ranmar_ ( float *  rvec,
int *  lenv 
) [friend]
double gen::TauolappInterface_RandGetter ( ) [friend]

Member Data Documentation

std::vector<int> gen::TauolaInterface::fHadronModes [private]

Definition at line 107 of file TauolaInterface.h.

Referenced by decodeMDTAU(), and selectHadronic().

Definition at line 111 of file TauolaInterface.h.

Referenced by getInstance(), and ~TauolaInterface().

Definition at line 102 of file TauolaInterface.h.

Referenced by decay(), flat(), and init().

std::vector<int> gen::TauolaInterface::fLeptonModes [private]

Definition at line 106 of file TauolaInterface.h.

Referenced by decodeMDTAU().

Definition at line 104 of file TauolaInterface.h.

Referenced by init(), and selectDecayByMDTAU().

std::vector<int> gen::TauolaInterface::fPDGs [private]

Definition at line 98 of file TauolaInterface.h.

Referenced by init(), and operatesOnParticles().

Definition at line 100 of file TauolaInterface.h.

Referenced by decay(), and init().

Definition at line 99 of file TauolaInterface.h.

Referenced by disablePolarization(), enablePolarization(), and init().

Definition at line 101 of file TauolaInterface.h.

Referenced by flat(), init(), setPSet(), and ~TauolaInterface().

CLHEP::HepRandomEngine* gen::TauolaInterface::fRandomEngine [private]

Definition at line 97 of file TauolaInterface.h.

Referenced by flat(), and TauolaInterface().

std::vector<double> gen::TauolaInterface::fScaledHadronBrRatios [private]

Definition at line 109 of file TauolaInterface.h.

Referenced by decodeMDTAU(), and selectHadronic().

std::vector<double> gen::TauolaInterface::fScaledLeptonBrRatios [private]

Definition at line 108 of file TauolaInterface.h.

Referenced by decodeMDTAU(), and selectLeptonic().

Definition at line 105 of file TauolaInterface.h.

Referenced by decay(), and decodeMDTAU().