CastorFastClusterProducer Class Reference

#include <FastSimulation/ForwardDetectors/plugins/CastorFastClusterProducer.cc>

Inheritance diagram for CastorFastClusterProducer:

Public Member Functions
	CastorFastClusterProducer (const edm::ParameterSet &)
	~CastorFastClusterProducer ()
Public Member Functions inherited from edm::EDProducer
	EDProducer ()
virtual	~EDProducer ()
Public Member Functions inherited from edm::ProducerBase
	ProducerBase ()
void	registerProducts (ProducerBase *, ProductRegistry *, ModuleDescription const &)
boost::function< void(const BranchDescription &)>	registrationCallback () const
	used by the fwk to register list of products More...
virtual	~ProducerBase ()

Private Types
typedef std::vector < reco::CastorCluster >	CastorClusterCollection
typedef ROOT::Math::RhoEtaPhiPoint	ClusterPoint
typedef math::XYZPointD	Point

Private Member Functions
virtual void	beginRun (edm::Run &, edm::EventSetup const &)
virtual void	endRun ()
double	make_noise ()
virtual void	produce (edm::Event &, const edm::EventSetup &)

Additional Inherited Members
Public Types inherited from edm::EDProducer
typedef EDProducer	ModuleType
typedef WorkerT< EDProducer >	WorkerType
Public Types inherited from edm::ProducerBase
typedef ProductRegistryHelper::TypeLabelList	TypeLabelList
Static Public Member Functions inherited from edm::EDProducer
static const std::string &	baseType ()
static void	fillDescriptions (ConfigurationDescriptions &descriptions)
Protected Member Functions inherited from edm::EDProducer
CurrentProcessingContext const *	currentContext () const
Protected Member Functions inherited from edm::ProducerBase
template<class TProducer , class TMethod >
void	callWhenNewProductsRegistered (TProducer *iProd, TMethod iMethod)

Detailed Description

Description: <one line="" class="" summary>="">

Implementation: <Notes on="" implementation>="">

Definition at line 16 of file CastorFastClusterProducer.h.

Member Typedef Documentation

typedef std::vector<reco::CastorCluster> CastorFastClusterProducer::CastorClusterCollection

private

Definition at line 30 of file CastorFastClusterProducer.h.

typedef ROOT::Math::RhoEtaPhiPoint CastorFastClusterProducer::ClusterPoint

private

Definition at line 29 of file CastorFastClusterProducer.h.

typedef math::XYZPointD CastorFastClusterProducer::Point

private

Definition at line 28 of file CastorFastClusterProducer.h.

Constructor & Destructor Documentation

CastorFastClusterProducer::CastorFastClusterProducer ( const edm::ParameterSet &  iConfig )

explicit

Definition at line 56 of file CastorFastClusterProducer.cc.

{
   //register your products
   produces<CastorClusterCollection>();
   
   //now do what ever other initialization is needed

}

CastorFastClusterProducer::~CastorFastClusterProducer

(

)

Definition at line 66 of file CastorFastClusterProducer.cc.

{
 
   // do anything here that needs to be done at desctruction time
   // (e.g. close files, deallocate resources etc.)

}

Member Function Documentation

void CastorFastClusterProducer::beginRun ( edm::Run &  run, edm::EventSetup const &  es  )

privatevirtual

Reimplemented from edm::EDProducer.

Definition at line 364 of file CastorFastClusterProducer.cc.

{
}

void CastorFastClusterProducer::endRun ( void  )

privatevirtual

Definition at line 370 of file CastorFastClusterProducer.cc.

                                  {
}

double CastorFastClusterProducer::make_noise ( )

private

Definition at line 348 of file CastorFastClusterProducer.cc.

References query::result.

                                             {
    double result = -1.;
    TRandom3 r2(0);
    double mu_noise = 0.053; // GeV (from 1.214 ADC) per channel
    double sigma_noise = 0.027; // GeV (from 0.6168 ADC) per channel
    
    while (result < 0.) {
        result = r2.Gaus(mu_noise,sigma_noise);
    }
    
    return result;
}

void CastorFastClusterProducer::produce ( edm::Event &  iEvent, const edm::EventSetup &  iSetup  )

privatevirtual

Implements edm::EDProducer.

Definition at line 81 of file CastorFastClusterProducer.cc.

References a, reco::Candidate::energy(), reco::Candidate::eta(), Gamma, genParticleCandidates2GenParticles_cfi::genParticles, edm::Event::getByLabel(), i, funct::log(), L1TEmulatorMonitor_cff::p, reco::Candidate::pdgId(), reco::Candidate::phi(), funct::pow(), edm::RefVector< C, T, F >::push_back(), edm::Event::put(), csvReporter::r, dt_dqm_sourceclient_common_cff::reco, mathSSE::sqrt(), cond::rpcobtemp::temp, tmax, and x.

Referenced by python.JSONExport.JsonExport::export(), and python.HTMLExport.HTMLExport::export().

{
   using namespace edm;
   using namespace reco;
   using namespace std;
   using namespace TMath;
   
   //
   // Make CastorCluster objects
   //
   
   //cout << "entering event" << endl;
   
   Handle<GenParticleCollection> genParticles;
   iEvent.getByLabel("genParticles", genParticles);
   
   // make pointer to towers that will be made
   auto_ptr<CastorClusterCollection> CastorClusters (new CastorClusterCollection);
   
   /*
   // declare castor array
   double castorplus [4][16]; // (0,x): Energies - (1,x): emEnergies - (2,x): hadEnergies - (3,x): phi position - eta = 5.9
   double castormin [4][16];  // (0,x): Energies - (1,x): emEnergies - (2,x): hadEnergies - (3,x): phi position - eta = -5.9
   // set phi values of array sectors and everything else to zero
   for (int j = 0; j < 16; j++) {
    castorplus[3][j] = -2.94524 + j*0.3927;
    castormin[3][j] = -2.94524 + j*0.3927;
    castorplus[0][j] = 0.;
    castormin[0][j] = 0.;
    castorplus[1][j] = 0.;
    castormin[1][j] = 0.;
    castorplus[2][j] = 0.;
    castormin[2][j] = 0.; 
    //castorplus[4][j] = 0.;
    //castormin[4][j] = 0.;
   }
   
   // declare properties vectors
   vector<double> depthplus[16];
   vector<double> depthmin[16];
   vector<double> fhotplus [16];
   vector<double> fhotmin [16];
   vector<double> energyplus [16];
   vector<double> energymin [16];
   
   for (int i=0;i<16;i++) {
    depthplus[i].clear();
    depthmin[i].clear();
    fhotplus[i].clear();
    fhotmin[i].clear();
    energyplus[i].clear();
    energymin[i].clear();
   }
   */
   
   //cout << "declared everything" << endl;
   
   // start particle loop
   for (size_t i = 0; i < genParticles->size(); ++i) {
    const Candidate & p = (*genParticles)[i];
    
    // select particles in castor
    if ( fabs(p.eta()) > 5.2 && fabs(p.eta()) < 6.6) {
    
        //cout << "found particle in castor, start calculating" << endl;
        
        // declare energies
        double gaus_E = -1.; 
        double emEnergy = 0.;
        double hadEnergy = 0.;
        //double fhot = 0.;
        //double depth = 0.;
        
        // add energies - em: if particle is e- or gamma
        if (p.pdgId() == 11 || p.pdgId() == 22) {
            
        while ( gaus_E < 0.) {
        // apply energy smearing with gaussian random generator
            TRandom3 r(0);
            // use sigma/E parametrization for the EM sections of CASTOR TB 2007 results
            double sigma = p.energy()*(sqrt(pow(0.044,2) + pow(0.513/sqrt(p.energy()),2)));
            gaus_E = r.Gaus(p.energy(),sigma);
        }
        
            // calculate electromagnetic electron/photon energy leakage
            double tmax;
            double a;
        double cte;
        if ( p.pdgId() == 11) { cte = -0.5; } else { cte = 0.5; }
            tmax = 1.0*(log(gaus_E/0.0015)+cte);
            a = tmax*0.5 + 1;
            double leakage;
            double x = 0.5*19.38;
            leakage = gaus_E - gaus_E*Gamma(a,x);
        
        // add emEnergy
            emEnergy = gaus_E - leakage;
            // add hadEnergy leakage
        hadEnergy = leakage;
        
        // make cluster
        ClusterPoint pt1;
        if (p.eta() > 0.) {ClusterPoint temp(88.5,5.9,p.phi()); pt1 = temp;}
        if (p.eta() < 0.) {ClusterPoint temp(88.5,-5.9,p.phi()); pt1 = temp;}
            Point pt2(pt1);
        CastorTowerRefVector refvector;
        CastorClusters->push_back(reco::CastorCluster(gaus_E,pt2,emEnergy,hadEnergy,emEnergy/gaus_E,0.,0.,0.,0.,refvector));
        
        } else {
        
            while (gaus_E < 0.) {
            // apply energy smearing with gaussian random generator
            TRandom3 r(0);
            // use sigma/E parametrization for the HAD sections of CASTOR TB 2007 results
        double sigma = p.energy()*(sqrt(pow(0.121,2) + pow(1.684/sqrt(p.energy()),2)));
            gaus_E = r.Gaus(p.energy(),sigma);
        }
        
            // add hadEnergy
        hadEnergy = gaus_E;
        
        // make cluster
        ClusterPoint pt1;
        if (p.eta() > 0.) {ClusterPoint temp(88.5,5.9,p.phi()); pt1 = temp;}
        if (p.eta() < 0.) {ClusterPoint temp(88.5,-5.9,p.phi()); pt1 = temp;}
            Point pt2(pt1);
        CastorTowerRefVector refvector;
        CastorClusters->push_back(reco::CastorCluster(gaus_E,pt2,0.,hadEnergy,0.,0.,0.,0.,0.,refvector));
        }
        
        /*
        // make tower
        
        // set sector
        int sector = -1;
        for (int j = 0; j < 16; j++) {
            double a = -M_PI + j*0.3927;
        double b = -M_PI + (j+1)*0.3927;
            if ( (p.phi() > a) && (p.phi() < b)) {  
           sector = j;
        }
        }
        
        // set eta
        if (p.eta() > 0) { 
        castorplus[0][sector] = castorplus[0][sector] + gaus_E;
        castorplus[1][sector] = castorplus[1][sector] + emEnergy;
        castorplus[2][sector] = castorplus[2][sector] + hadEnergy;
        
        depthplus[sector].push_back(depth);
        fhotplus[sector].push_back(fhot);
        energyplus[sector].push_back(gaus_E);
        //cout << "filled vectors" << endl;
        //cout << "energyplus size = " << energyplus[sector].size() << endl;
        //cout << "depthplus size = " << depthplus[sector].size() << endl;
        //cout << "fhotplus size = " << fhotplus[sector].size() << endl;
        
        } else { 
        castormin[0][sector] = castormin[0][sector] + gaus_E;
        castormin[1][sector] = castormin[1][sector] + emEnergy;
        castormin[2][sector] = castormin[2][sector] + hadEnergy;
        
        
        depthmin[sector].push_back(depth);
        fhotmin[sector].push_back(fhot);
        energymin[sector].push_back(gaus_E);
        //cout << "filled vectors" << endl;
        
        }
        */
        
    }
    
   }
   
   /*
   // substract pedestals/noise
   for (int j = 0; j < 16; j++) {
    double hadnoise = 0.;
    for (int i=0;i<12;i++) {
        hadnoise = hadnoise + make_noise();
    }
    castorplus[0][j] = castorplus[0][j] - hadnoise - make_noise() - make_noise();
    castormin[0][j] = castormin[0][j] - hadnoise - make_noise() - make_noise();
    castorplus[1][j] = castorplus[1][j] - make_noise() - make_noise();
    castormin[1][j] = castormin[1][j] - make_noise() - make_noise();
    castorplus[2][j] = castorplus[2][j] - hadnoise;
    castormin[2][j] = castormin[2][j] - hadnoise; 
    
    // set possible negative values to zero
    if (castorplus[0][j] < 0.) castorplus[0][j] = 0.;
    if (castormin[0][j] < 0.) castormin[0][j] = 0.;
    if (castorplus[1][j] < 0.) castorplus[1][j] = 0.;
    if (castormin[1][j] < 0.) castormin[1][j] = 0.;
    if (castorplus[2][j] < 0.) castorplus[2][j] = 0.;
    if (castormin[2][j] < 0.) castormin[2][j] = 0.;
   }
   */
   
   /*
   // store towers from castor arrays
   // eta = 5.9
   for (int j=0;j<16;j++) {
    if (castorplus[0][j] > 0.) {
        
        double fem = 0.;
        fem = castorplus[1][j]/castorplus[0][j]; 
        ClusterPoint pt1(88.5,5.9,castorplus[3][j]);
        Point pt2(pt1); 
        
        // parametrize depth and fhot from full sim
        // get fit parameters from energy
        // get random number according to distribution with fit parameters
        double depth_mean = 0.;
        double fhot_mean = 0.;
        double sum_energy = 0.;
        
        //cout << "energyplus size = " << energyplus[j].size()<< endl;
        for (size_t p = 0; p<energyplus[j].size();p++) {
            depth_mean = depth_mean + depthplus[j][p]*energyplus[j][p];
            fhot_mean = fhot_mean + fhotplus[j][p]*energyplus[j][p];
        sum_energy = sum_energy + energyplus[j][p];
        }
        depth_mean = depth_mean/sum_energy;
        fhot_mean = fhot_mean/sum_energy;
        cout << "computed depth/fhot" << endl;
        
        
        edm::RefVector<edm::SortedCollection<CastorRecHit> > refvector;
        CastorClusters->push_back(reco::CastorCluster(castorplus[0][j],pt2,castorplus[1][j],castorplus[2][j],fem,depth_mean,fhot_mean,refvector));  
    }
   }
   // eta = -5.9
   for (int j=0;j<16;j++) {
    if (castormin[0][j] > 0.) {
        double fem = 0.;
        fem = castormin[1][j]/castormin[0][j]; 
        ClusterPoint pt1(88.5,-5.9,castormin[3][j]);
        Point pt2(pt1); 
        
        // parametrize depth and fhot from full sim
        // get fit parameters from energy
        // get random number according to distribution with fit parameters
        double depth_mean = 0.;
        double fhot_mean = 0.;
        double sum_energy = 0.;
        
        
        for (size_t p = 0; p<energymin[j].size();p++) {
            depth_mean = depth_mean + depthmin[j][p]*energymin[j][p];
            fhot_mean = fhot_mean + fhotmin[j][p]*energymin[j][p];
        sum_energy = sum_energy + energymin[j][p];
        }
        depth_mean = depth_mean/sum_energy;
        fhot_mean = fhot_mean/sum_energy;
        
        
        edm::RefVector<edm::SortedCollection<CastorRecHit> > refvector;
        CastorClusters->push_back(reco::CastorCluster(castormin[0][j],pt2,castormin[1][j],castormin[2][j],fem,depth_mean,fhot_mean,refvector)); 
    }
   }
   */
        
   iEvent.put(CastorClusters); 
   
}