#include <PunchThroughTool.h>

Inheritance diagram for ISF::PunchThroughTool:

Classes
struct	InfoMap

Public Member Functions
	PunchThroughTool (const std::string &, const std::string &, const IInterface *)
	Constructor.
virtual	~PunchThroughTool ()=default
	Destructor.
virtual StatusCode	initialize ()
	AlgTool initialize method.
virtual StatusCode	finalize ()
	AlgTool finalize method.
const ISF::ISFParticleVector *	computePunchThroughParticles (const ISF::ISFParticle &isfp, const TFCSSimulationState &simulstate, CLHEP::HepRandomEngine *rndmEngine) const
	interface function: fill a vector with the punch-through particles

Private Member Functions
StatusCode	registerParticle (int pdgID, bool doAntiparticle=false, double minEnergy=0., int maxNumParticles=-1, double numParticlesFactor=1., double energyFactor=1., double posAngleFactor=1., double momAngleFactor=1.)
	registers a type of punch-through particles which will be simulated
StatusCode	registerCorrelation (int pdgID1, int pdgID2, double minCorrEnergy=0., double fullCorrEnergy=0.)
	register a correlation for the two given types of punch-through particles with a given energy threshold above which we will have full correlation
std::unique_ptr< ISF::PDFcreator >	readLookuptablePDF (int pdgID, const std::string &folderName)
	reads out the lookuptable for the given type of particle
int	getAllParticles (const ISF::ISFParticle &isfp, ISFParticleVector &isfpCont, CLHEP::HepRandomEngine *rndmEngine, int pdg, double interpEnergy, double interpEta, int numParticles=-1) const
	create the right number of punch-through particles for the given pdg and return the number of particles which was created.
int	getCorrelatedParticles (const ISF::ISFParticle &isfp, ISFParticleVector &isfpCont, int doPdg, int corrParticles, CLHEP::HepRandomEngine *rndmEngine, double interpEnergy, double interpEta) const
	get the right number of particles for the given pdg while considering the correlation to an other particle type, which has already created 'corrParticles' number of particles
ISF::ISFParticle *	getOneParticle (const ISF::ISFParticle &isfp, int pdg, CLHEP::HepRandomEngine *rndmEngine, double interpEnergy, double interpEta) const
	create exactly one punch-through particle with the given pdg and the given max energy
ISF::ISFParticle *	createExitPs (const ISF::ISFParticle &isfp, int PDGcode, double energy, double theta, double phi, double momTheta, double momPhi) const
	create a ISF Particle state at the MS entrace containing a particle with the given properties
double	getFloatAfterPatternInStr (const char str, const char pattern)
	get the floating point number in a string, after the given pattern
Amg::Vector3D	propagator (double theta, double phi) const
	get particle through the calorimeter
std::vector< double >	inversePCA (int pcaCdfIterator, std::vector< double > &variables) const
double	interpolateEnergy (const double &energy, CLHEP::HepRandomEngine *rndmEngine) const
double	interpolateEta (const double &eta, CLHEP::HepRandomEngine *rndmEngine) const
std::vector< InfoMap >	getInfoMap (const std::string &mainNode, const XMLCoreNode &doc)
int	passedParamIterator (int pid, double eta, const std::vector< InfoMap > &mapvect) const
StatusCode	initializeInverseCDF (const std::string &quantileTransformerConfigFile)
StatusCode	initializeInversePCA (const std::string &inversePCAConfigFile)

Static Private Member Functions
static double	inverseCdfTransform (double variable, const std::map< double, double > &inverse_cdf_map)
static std::vector< double >	dotProduct (const std::vector< std::vector< double > > &m, const std::vector< double > &v)
static double	normal_cdf (double x)
static std::map< double, double >	getVariableCDFmappings (const XMLCoreNode *node)

Private Attributes
std::vector< double >	m_energyPoints
	energy and eta points in param
std::vector< double >	m_etaPoints
double	m_R1 {0.}
	calo-MS borders
double	m_R2 {0.}
double	m_z1 {0.}
double	m_z2 {0.}
const HepPDT::ParticleDataTable *	m_particleDataTable {nullptr}
	ParticleDataTable needed to get connection pdg_code <-> charge.
TFile *	m_fileLookupTable {nullptr}
	ROOT objects.
std::map< int, PunchThroughParticle * >	m_particles
	needed to create punch-through particles with the right distributions
StringProperty	m_filenameLookupTable {this, "FilenameLookupTable", "CaloPunchThroughParametrisation.root", "holds the filename of the lookup table"}
	Properties.
StringProperty	m_filenameInverseCDF {this, "FilenameInverseCdf", "", "holds the filename of inverse quantile transformer config"}
StringProperty	m_filenameInversePCA {this, "FilenameInversePca", "", "holds the filename of inverse PCA config"}
PublicToolHandle< IPunchThroughClassifier >	m_punchThroughClassifier {this, "PunchThroughClassifier", "ISF_PunchThroughClassifier", ""}
IntegerArrayProperty	m_pdgInitiators {this, "PunchThroughInitiators", {}, "vector of punch-through initiator pgds"}
IntegerArrayProperty	m_initiatorsMinEnergy {this, "InitiatorsMinEnergy", {}, "vector of punch-through initiator min energies to create punch through"}
DoubleArrayProperty	m_initiatorsEtaRange {this, "InitiatorsEtaRange", {}, "vector of min and max abs eta range to allow punch through initiators"}
IntegerArrayProperty	m_punchThroughParticles {this, "PunchThroughParticles", {}, "vector of pdgs of the particles produced in punch-throughs"}
BooleanArrayProperty	m_doAntiParticles {this, "DoAntiParticles", {}, "vector of bools to determine if anti-particles are created for each punch-through particle type"}
IntegerArrayProperty	m_correlatedParticle {this, "CorrelatedParticle", {}, "holds the pdg of the correlated particle for each given pdg"}
DoubleArrayProperty	m_minCorrEnergy {this, "MinCorrelationEnergy", {}, "holds the energy threshold below which no particle correlation is computed"}
DoubleArrayProperty	m_fullCorrEnergy {this, "FullCorrelationEnergy", {}, "holds the energy threshold above which a particle correlation is fully developed"}
DoubleArrayProperty	m_posAngleFactor {this, "ScalePosDeflectionAngles", {}, "tuning parameter to scale the position deflection angles"}
DoubleArrayProperty	m_momAngleFactor {this, "ScaleMomDeflectionAngles", {}, "tuning parameter to scale the momentum deflection angles"}
DoubleArrayProperty	m_minEnergy {this, "MinEnergy", {}, "punch-through particles minimum energies"}
IntegerArrayProperty	m_maxNumParticles {this, "MaxNumParticles", {}, "maximum number of punch-through particles for each particle type"}
DoubleArrayProperty	m_numParticlesFactor {this, "NumParticlesFactor", {}, "scale the number of punch-through particles"}
DoubleArrayProperty	m_energyFactor {this, "EnergyFactor", {}, "scale the energy of the punch-through particles"}
ServiceHandle< IPartPropSvc >	m_particlePropSvc {this, "PartPropSvc", "PartPropSvc", "particle properties svc"}
ServiceHandle< IGeoIDSvc >	m_geoIDSvc {this, "GeoIDSvc", "ISF::GeoIDSvc"}
ServiceHandle< IEnvelopeDefSvc >	m_envDefSvc {this, "EnvelopeDefSvc", "AtlasGeometry_EnvelopeDefSvc"}
DoubleProperty	m_beamPipe {this, "BeamPipeRadius", 500.}
	beam pipe radius
std::vector< std::vector< std::vector< double > > >	m_inverse_PCA_matrix
	pca vectors
std::vector< std::vector< double > >	m_PCA_means
std::vector< InfoMap >	m_xml_info_pca
	infoMaps
std::vector< InfoMap >	m_xml_info_cdf
std::vector< std::map< double, double > >	m_variable0_inverse_cdf
	(vector of map) for CDF mappings
std::vector< std::map< double, double > >	m_variable1_inverse_cdf
std::vector< std::map< double, double > >	m_variable2_inverse_cdf
std::vector< std::map< double, double > >	m_variable3_inverse_cdf
std::vector< std::map< double, double > >	m_variable4_inverse_cdf

Detailed Description

Definition at line 49 of file PunchThroughTool.h.

Constructor & Destructor Documentation

◆ PunchThroughTool()

ISF::PunchThroughTool::PunchThroughTool	(	const std::string &	type,
		const std::string &	name,
		const IInterface *	parent )

Constructor.

Definition at line 65 of file PunchThroughTool.cxx.

: base_class(type, name, parent)
{
}

◆ ~PunchThroughTool()

virtual ISF::PunchThroughTool::~PunchThroughTool ( )

virtualdefault

Destructor.

Member Function Documentation

◆ computePunchThroughParticles()

const ISF::ISFParticleVector * ISF::PunchThroughTool::computePunchThroughParticles	(	const ISF::ISFParticle &	isfp,
		const TFCSSimulationState &	simulstate,
		CLHEP::HepRandomEngine *	rndmEngine ) const

interface function: fill a vector with the punch-through particles

Definition at line 291 of file PunchThroughTool.cxx.

{
  ATH_MSG_DEBUG( "[ punchthrough ] starting punch-through simulation");
 
  // create output particle collection
  auto isfpCont = std::make_unique<ISF::ISFParticleVector>();
 
  ATH_MSG_VERBOSE("[ punchthrough ] position of the input particle: r"<<isfp.position().perp()<<" z= "<<isfp.position().z() );
 
  //check if it points to the calorimeter - if not, don't simulate
 
  if ( m_geoIDSvc->identifyNextGeoID(isfp) != AtlasDetDescr::fAtlasCalo)
    {
      ATH_MSG_VERBOSE ("[ GeoIDSvc ] input particle doesn't point to calorimeter"<< "Next GeoID: "<<m_geoIDSvc->identifyNextGeoID(isfp) );
      return nullptr;
    }
 
 
  // check if the particle's pdg is registered as a punch-through-causing type
  {
    std::vector<int>::const_iterator pdgIt    = m_pdgInitiators.begin();
    std::vector<int>::const_iterator pdgItEnd = m_pdgInitiators.end();
 
    std::vector<int>::const_iterator minEnergyIt    = m_initiatorsMinEnergy.begin();
    // loop over all known punch-through initiators
    for ( ; pdgIt != pdgItEnd; ++pdgIt, ++minEnergyIt)
      {
        if (std::abs(isfp.pdgCode()) == *pdgIt){
          if(std::sqrt( isfp.momentum().mag2() + isfp.mass()*isfp.mass() ) < *minEnergyIt){
            ATH_MSG_DEBUG("[ punchthrough ] particle does not meet initiator min energy requirement. Dropping it in the calo.");
            return nullptr;
          }
          break;
        }
      }
 
    // particle will not cause punch-through -> bail out
    if (pdgIt == pdgItEnd)
      {
        ATH_MSG_DEBUG("[ punchthrough ] particle is not registered as punch-through initiator. Dropping it in the calo.");
        return nullptr;
      }
  }
 
  if(isfp.position().eta() < m_initiatorsEtaRange.value().at(0) || isfp.position().eta() > m_initiatorsEtaRange.value().at(1) ){
    ATH_MSG_DEBUG("[ punchthrough ] particle does not meet initiator eta range requirement. Dropping it in the calo.");
    return nullptr;
  }
 
  //Calculate probability of punch through using punchThroughClassifier
  double punchThroughProbability = m_punchThroughClassifier->computePunchThroughProbability(isfp, simulstate);
 
  //Draw random number to compare to probability
  double punchThroughClassifierRand = CLHEP::RandFlat::shoot(rndmEngine);
 
  ATH_MSG_DEBUG("[ punchthrough ] punchThroughProbability output: " << punchThroughProbability << " RandFlat: " << punchThroughClassifierRand );
 
  //If probability < random number then don't simulate punch through
  if( punchThroughClassifierRand > punchThroughProbability){
      ATH_MSG_DEBUG("[ punchthrough ] particle not classified to create punch through. Dropping it in the calo.");
      return nullptr;
  }
 
  //if initial particle is on ID surface, points to the calorimeter, is a punch-through initiator, meets initiator min enery and eta range
 
  // this is the place where the magic is done:
  // test for each registered punch-through pdg if a punch-through
  // occures and create these particles
  // -> therefore loop over all registered pdg ids
  // to keep track of the correlated particles which were already simulated:
  // first int is pdg, second int is number of particles created
 
  // calculate incoming energy and eta
  const double initEnergy = std::sqrt( isfp.momentum().mag2() + isfp.mass()*isfp.mass() );
  const double initEta = isfp.position().eta();
 
  // interpolate energy and eta
  const double interpEnergy = interpolateEnergy(initEnergy, rndmEngine);
  const double interpEta = interpolateEta(initEta, rndmEngine);
 
  std::map<int, int> corrPdgNumDone;
 
  int maxTries = 10;
  int nTries = 0;
 
  // loop over all particle pdgs
  while(isfpCont->empty() && nTries < maxTries) { //ensure we always create at least one punch through particle, maxTries to catch very rare cases
 
      for (const auto& currentParticle : m_particles)
        {
          // the pdg that is currently treated
          int doPdg = currentParticle.first;
          // get the current particle's correlated pdg
          int corrPdg = currentParticle.second->getCorrelatedPdg();
 
          // if there is a correlated particle type to this one
          if (corrPdg)
            {
              // find out if the current pdg was already simulated
              std::map<int,int>::iterator pos = corrPdgNumDone.find(doPdg);
              // if the current pdg was not simulated yet, find out if
              // it's correlated one was simulated
              if ( pos == corrPdgNumDone.end() ) pos = corrPdgNumDone.find(corrPdg);
 
              // neither this nor the correlated particle type was simulated
              // so far:
              if ( pos == corrPdgNumDone.end() )
                {
                  // -> roll a dice if we create this particle or its correlated one
                  if ( CLHEP::RandFlat::shoot(rndmEngine) > 0.5 ) doPdg = corrPdg;
                  // now create the particles with the given pdg and note how many
                  // particles of this pdg are created
                  corrPdgNumDone[doPdg] = getAllParticles(isfp, *isfpCont, rndmEngine, doPdg, interpEnergy, interpEta);
                }
 
              // one of the two correlated particle types was already simulated
              // 'pos' points to the already simulated one
              else
                {
                  // get the pdg of the already simulated particle and the number
                  // of these particles that were created
                  const int donePdg = pos->first;
                  const int doneNumPart = pos->second;
                  // set the pdg of the particle type that will be done
                  if (donePdg == doPdg) doPdg = corrPdg;
 
                  // now create the correlated particles
                  getCorrelatedParticles(isfp, *isfpCont, doPdg, doneNumPart, rndmEngine, interpEnergy, interpEta);
                  // note: no need to take note, that this particle type is now simulated,
                  // since this is the second of two correlated particles, which is
                  // simulated and we do not have correlations of more than two particles.
                }
 
              // if no correlation for this particle
              // -> directly create all particles with the current pdg
            }
          else getAllParticles(isfp, *isfpCont, rndmEngine, doPdg, interpEnergy, interpEta);
 
        } // for-loop over all particle pdgs
 
      nTries++;
  }
 
  if (!isfpCont->empty())  ATH_MSG_DEBUG( "[ punchthrough ] returning ISFparticle vector , size: "<<isfpCont->size() );
 
  for (ISF::ISFParticle *particle : *isfpCont) {
    ATH_MSG_DEBUG("codes of produced punch through particle: pdg = "<< particle->pdgCode());
    Amg::Vector3D position = particle->position();
    ATH_MSG_DEBUG("position of produced punch-through particle: x = "<< position.x() <<" y = "<< position.y() <<" z = "<< position.z());
    Amg::Vector3D momentum = particle->momentum();
    ATH_MSG_DEBUG("momentum of produced punch-through particle: px = "<< momentum.x() <<" py = "<< momentum.x() <<" pz = "<< momentum.x() <<" e = "<< particle->ekin() << " mass = " << particle->mass());
  }
 
  return isfpCont.release();
}

◆ createExitPs()

ISF::ISFParticle * ISF::PunchThroughTool::createExitPs	(	const ISF::ISFParticle &	isfp,
		int	PDGcode,
		double	energy,
		double	theta,
		double	phi,
		double	momTheta,
		double	momPhi ) const

private

create a ISF Particle state at the MS entrace containing a particle with the given properties

@TODO: fix

Definition at line 1259 of file PunchThroughTool.cxx.

{
  // the intersection point with Calo-MS surface
 
  const Amg::Vector3D pos = propagator(theta,phi);
 
  // set up the real punch-through particle at this position
  // set up the momentum vector of this particle as a GlobalMomentum
  // by using the given energy and mass of the particle and also using
  // the given theta and phi
 
  Amg::Vector3D mom;
  double mass = m_particleDataTable->particle(std::abs(pdg))->mass();
  Amg::setRThetaPhi( mom, std::sqrt(energy*energy - mass*mass), momTheta, momPhi);
  ATH_MSG_DEBUG("setRThetaPhi pre input parameters: energy = "<< energy <<" mass = "<< mass);
  ATH_MSG_DEBUG("setRThetaPhi input parameters: std::sqrt(energy*energy - mass*mass) = "<< std::sqrt(energy*energy - mass*mass) <<" momTheta = "<< momTheta <<" momPhi = "<< momPhi);
 
 
  double charge = m_particleDataTable->particle(std::abs(pdg))->charge();
  // since the PDT table only has abs(PID) values for the charge
  charge *= (pdg > 0.) ?  1. : -1.;
 
  const double pTime = 0;  
  const int status = 1 + HepMC::SIM_STATUS_THRESHOLD;
  const int id = HepMC::UNDEFINED_ID;
  // NB we are not considering the possibility that the punch-through
  // particle is the incoming particle having survived an interaction.
  ISF::ISFParticle* finalPar = new ISF::ISFParticle ( pos, mom, mass, charge, pdg, status, pTime, isfp, id);
  finalPar->setNextGeoID( AtlasDetDescr::fAtlasMS);
 
  // return the punch-through particle
  return finalPar;
}

◆ dotProduct()

std::vector< double > ISF::PunchThroughTool::dotProduct	(	const std::vector< std::vector< double > > &	m,
		const std::vector< double > &	v )

staticprivate

Definition at line 732 of file PunchThroughTool.cxx.

{
    std::vector<double> result;
    result.reserve(m.size());
    for (const auto& r : m){
        result.push_back(std::inner_product(v.begin(), v.end(), r.begin(), 0.0));
    }
 
    return result;
}

◆ finalize()

StatusCode ISF::PunchThroughTool::finalize ( )

virtual

AlgTool finalize method.

Definition at line 274 of file PunchThroughTool.cxx.

{
  ATH_MSG_DEBUG( "[punchthrough] finalize() starting" );
  for(auto & each : m_particles) {
    delete each.second;
  }
 
  ATH_MSG_DEBUG( "[punchthrough] finalize() successful" );
 
  return StatusCode::SUCCESS;
}

◆ getAllParticles()

int ISF::PunchThroughTool::getAllParticles	(	const ISF::ISFParticle &	isfp,
		ISFParticleVector &	isfpCont,
		CLHEP::HepRandomEngine *	rndmEngine,
		int	pdg,
		double	interpEnergy,
		double	interpEta,
		int	numParticles = -1 ) const

private

create the right number of punch-through particles for the given pdg and return the number of particles which was created.

also create these particles with the right distributions (energy, theta, phi). if a second argument is given, create exactly this number of particles (also with the right energy,theta,phi distributions

Definition at line 451 of file PunchThroughTool.cxx.

{
 
  // get the current particle
  PunchThroughParticle *p = m_particles.at(pdg);
 
  // if no number of particles (=-1) was handed over as an argument
  //  -> get the number of particles from the pdf
  if ( numParticles < 0 )
    {
      // prepare the function arguments for the PDFcreator class
      std::vector<int> parameters;
      parameters.push_back( std::round(interpEnergy) );
      parameters.push_back( std::round(interpEta*100) );
      // the maximum number of particles which should be produced
      // if no maximum number is given, this is -1
      int maxParticles = p->getMaxNumParticles();
 
      // get the right number of punch-through particles
      // and ensure that we do not create too many particles
      do
        {
          numParticles = int( p->getNumParticlesPDF()->getRand(rndmEngine, parameters) );
 
          // scale the number of particles if requested
          numParticles = lround( numParticles *= p->getNumParticlesFactor() );
        }
      while ( (maxParticles >= 0.) && (numParticles > maxParticles) );
    }
 
  ATH_MSG_VERBOSE("[ punchthrough ] adding " << numParticles << " punch-through particles with pdg " << pdg);
 
  // now create the exact number of particles which was just computed before
  double energyRest = std::sqrt( isfp.momentum().mag2() + isfp.mass()*isfp.mass() );
  double minEnergy = p->getMinEnergy();
  int numCreated = 0;
 
  for ( numCreated = 0; (numCreated < numParticles) && (energyRest > minEnergy); numCreated++ )
    {
      // create one particle which fullfills the right energy distribution
      ISF::ISFParticle *par = getOneParticle(isfp, pdg, rndmEngine, interpEnergy, interpEta);
 
      // if something went wrong
      if (!par)
        {
          ATH_MSG_ERROR("[ punchthrough ] something went wrong while creating punch-through particles");
          return 0;
        }
 
      // get the energy of the particle which was just created
      const double restMass = m_particleDataTable->particle(std::abs(pdg))->mass();
      double curEnergy = std::sqrt(par->momentum().mag2() + restMass*restMass);
 
      // calculate the maximum energy to be available for all
      // following punch-through particles created
      energyRest -= curEnergy;
 
      // add this ISFparticle to the vector
      isfpCont.push_back( par );
    }
 
  // the number of particles which was created is numCreated
  return (numCreated);
}

◆ getCorrelatedParticles()

int ISF::PunchThroughTool::getCorrelatedParticles	(	const ISF::ISFParticle &	isfp,
		ISFParticleVector &	isfpCont,
		int	doPdg,
		int	corrParticles,
		CLHEP::HepRandomEngine *	rndmEngine,
		double	interpEnergy,
		double	interpEta ) const

private

get the right number of particles for the given pdg while considering the correlation to an other particle type, which has already created 'corrParticles' number of particles

Definition at line 521 of file PunchThroughTool.cxx.

{
  // get the PunchThroughParticle class
  PunchThroughParticle *p = m_particles.at(pdg);
 
  const double initEnergy = std::sqrt( isfp.momentum().mag2() + isfp.mass()*isfp.mass() );
 
  // (1.) decide if we do correlation or not
  double rand = CLHEP::RandFlat::shoot(rndmEngine)
    *(p->getFullCorrelationEnergy()-p->getMinCorrelationEnergy())
    + p->getMinCorrelationEnergy();
  if ( initEnergy < rand )
    {
      // here we do not do correlation
      return getAllParticles(isfp, isfpCont, rndmEngine, pdg, interpEnergy, interpEta);
    }
 
  // (2.) if this point is reached, we do correlation
  // decide which 2d correlation histogram to use
  double *histDomains = p->getCorrelationHistDomains();
  TH2F *hist2d = nullptr;
  // compute the center values of the lowE and highE
  // correlation histogram domains
  if ( initEnergy <  histDomains[1])
    {
      // initial energy lower than border between lowEnergy and highEnergy histogram domain
      //  --> choose lowEnergy correlation histogram
      hist2d = p->getCorrelationLowEHist();
    }
  else
    {
      double rand = CLHEP::RandFlat::shoot(rndmEngine)*(histDomains[2]-histDomains[1])
        + histDomains[1];
      hist2d = ( initEnergy < rand) ? p->getCorrelationLowEHist()
        : p->getCorrelationHighEHist();
    }
 
  // get the correlation 2d histogram
 
  // now find out where on the x-axis the the bin for number of
  // correlated particles is
  Int_t xbin = hist2d->GetXaxis()->FindFixBin(corrParticles);
  int numParticles = 0;
  int maxParticles = p->getMaxNumParticles();
  // now the distribution along the y-axis is a PDF for the number
  // of 'pdg' particles
  do
    {
      double rand = CLHEP::RandFlat::shoot(rndmEngine);
      double sum = 0.;
      for ( int ybin = 1; ybin <= hist2d->GetNbinsY(); ybin++ )
        {
          sum += hist2d->GetBinContent(xbin, ybin);
          // check if we choose the current bin or not
          if ( sum >= rand )
            {
              numParticles = ybin - 1;
              break;
            }
        }
      // scale the number of particles is requested
      numParticles = lround( numParticles * p->getNumParticlesFactor() );
    }
  while ( (maxParticles >= 0.) && (numParticles > maxParticles) );
 
  // finally create this exact number of particles
  return getAllParticles(isfp, isfpCont, rndmEngine, pdg, interpEnergy, interpEta, numParticles);
}

◆ getFloatAfterPatternInStr()

double ISF::PunchThroughTool::getFloatAfterPatternInStr	(	const char *	str,
		const char *	pattern )

private

get the floating point number in a string, after the given pattern

Definition at line 1299 of file PunchThroughTool.cxx.

{
  double num = 0.;
 
  const std::string_view str( cstr);
  const std::string_view pattern( cpattern);
  const size_t pos = str.find(pattern);
 
  if ( pos == std::string::npos)
    {
      ATH_MSG_WARNING("[ punchthrough ] unable to retrieve floating point number from string");
      return -999999999999.;
    }
  const std::string_view substring = str.substr(pos+pattern.length());
  std::from_chars(substring.data(), substring.data() + substring.size(), num);
  return num;
}

◆ getInfoMap()

auto ISF::PunchThroughTool::getInfoMap	(	const std::string &	mainNode,
		const XMLCoreNode &	doc )

private

Definition at line 800 of file PunchThroughTool.cxx.

{
  std::vector<InfoMap>  xml_info;
 
  for (const XMLCoreNode* node : doc.get_children (mainNode + "/info/item")) {
    xml_info.emplace_back(*node);
  }
 
  return xml_info;  
}

◆ getOneParticle()

ISF::ISFParticle * ISF::PunchThroughTool::getOneParticle	(	const ISF::ISFParticle &	isfp,
		int	pdg,
		CLHEP::HepRandomEngine *	rndmEngine,
		double	interpEnergy,
		double	interpEta ) const

private

create exactly one punch-through particle with the given pdg and the given max energy

Definition at line 595 of file PunchThroughTool.cxx.

{
  // get a local copy of the needed punch-through particle class
  PunchThroughParticle *p = m_particles.at(pdg);
 
  // (0.) get the pca / cdf group based on pdgId and eta, eta times 100, e.g eta -4 to 4 is from eta -400 to 400
  int pcaCdfIterator = passedParamIterator(pdg, interpEta*100, m_xml_info_pca); //pca and cdf info should be of same size
 
  ATH_MSG_DEBUG("[ punchthrough ] passedPCAIterator ==> pcaCdfIterator = "<< pcaCdfIterator <<" , pdg = "<< pdg <<" , interpEnergy = "<< interpEnergy <<" MeV, interpEta(*100) = "<< interpEta*100);
 
  // (1.) decide if we create a particle or an anti-particle
  int anti = 1;
  if ( p->getdoAnti() )
    {
      // get a random-value
      double rand = CLHEP::RandFlat::shoot(rndmEngine);
      // 50/50 chance to be a particle or its anti-particle
      if (rand > 0.5) anti = -1;
    }
 
  // (2.) get the right punch-through distributions
  // prepare the function arguments for the PDFcreator class
  std::vector<int> parInitEnergyEta;
  parInitEnergyEta.push_back( std::round(interpEnergy) );
  parInitEnergyEta.push_back( std::round(interpEta*100) );
 
  //initialise variables to store punch through particle kinematics
  double energy = 0.;
  double deltaTheta = 0.;
  double deltaPhi = 0.;
  double momDeltaTheta = 0.;
  double momDeltaPhi = 0.;
 
  double principal_component_0 = 0.;
  double principal_component_1 = 0.;
  double principal_component_2 = 0.;
  double principal_component_3 = 0.;
  double principal_component_4 = 0.;
  std::vector<double> transformed_variables;
 
 
  principal_component_0 = p->getPCA0PDF()->getRand(rndmEngine, parInitEnergyEta);
  principal_component_1 = p->getPCA1PDF()->getRand(rndmEngine, parInitEnergyEta);
  principal_component_2 = p->getPCA2PDF()->getRand(rndmEngine, parInitEnergyEta);
  principal_component_3 = p->getPCA3PDF()->getRand(rndmEngine, parInitEnergyEta);
  principal_component_4 = p->getPCA4PDF()->getRand(rndmEngine, parInitEnergyEta);
 
  ATH_MSG_DEBUG("Drawn punch through kinematics PCA components: PCA0 = "<< principal_component_0 <<" PCA1 = "<< principal_component_1 <<" PCA2 = "<< principal_component_2 <<" PCA3 = "<< principal_component_3 <<" PCA4 = "<< principal_component_4 );
 
  std::vector<double> principal_components {
          principal_component_0, 
          principal_component_1, 
          principal_component_2, 
          principal_component_3, 
          principal_component_4
   };
 
  transformed_variables = inversePCA(pcaCdfIterator,principal_components);
 
  energy = inverseCdfTransform(transformed_variables.at(0), m_variable0_inverse_cdf[pcaCdfIterator]);
  deltaTheta = inverseCdfTransform(transformed_variables.at(1), m_variable1_inverse_cdf[pcaCdfIterator]);
  deltaPhi = inverseCdfTransform(transformed_variables.at(2), m_variable2_inverse_cdf[pcaCdfIterator]);
  momDeltaTheta = inverseCdfTransform(transformed_variables.at(3), m_variable3_inverse_cdf[pcaCdfIterator]);
  momDeltaPhi = inverseCdfTransform(transformed_variables.at(4), m_variable4_inverse_cdf[pcaCdfIterator]);
 
  ATH_MSG_DEBUG("Transformed punch through kinematics: energy = "<< energy <<" MeV deltaTheta = "<< deltaTheta <<" deltaPhi = "<< deltaPhi <<" momDeltaTheta = "<< momDeltaTheta <<" momDeltaPhi = "<< momDeltaPhi );
 
  energy *= p->getEnergyFactor(); // scale the energy if requested
  if (energy < p->getMinEnergy()) {
    energy = p->getMinEnergy() + 10;
  }
 
 
  // (2.2) get the particles delta theta relative to the incoming particle
  double theta = 0;
  // loop to keep theta within range [0,PI]
  do
    {
      // decide if delta positive/negative
      deltaTheta *=  ( CLHEP::RandFlat::shoot(rndmEngine) > 0.5 ) ? 1. : -1.;
      // calculate the exact theta value of the later created
      // punch-through particle
      theta = isfp.position().theta() + deltaTheta*p->getPosAngleFactor();
 
    }
  while ( (theta > M_PI) || (theta < 0.) );
  // (2.3) get the particle's delta phi relative to the incoming particle
 
  deltaPhi *=  ( CLHEP::RandFlat::shoot(rndmEngine) > 0.5 ) ? 1. : -1.;
 
  // keep phi within range [-PI,PI]
  double phi = isfp.position().phi() + deltaPhi*p->getPosAngleFactor();
  while ( std::fabs(phi) > 2*M_PI) phi /= 2.;
  while (phi >  M_PI) phi -= 2*M_PI;
  while (phi < -M_PI) phi += 2*M_PI;
 
  // (2.4) get the particle momentum delta theta, relative to its position
  //
  // loop to keep momTheta within range [0,PI]
 
  double momTheta = 0.;
  do
    {
      // decide if delta positive/negative
      momDeltaTheta *=  ( CLHEP::RandFlat::shoot(rndmEngine) > 0.5 ) ? 1. : -1.;
      // calculate the exact momentum theta value of the later created
      // punch-through particle
      momTheta = theta + momDeltaTheta*p->getMomAngleFactor();
 
    }
  while ( (momTheta > M_PI) || (momTheta < 0.) );
 
  // (2.5) get the particle momentum delta phi, relative to its position
 
  momDeltaPhi *=  ( CLHEP::RandFlat::shoot(rndmEngine) > 0.5 ) ? 1. : -1.;
 
  double momPhi = phi + momDeltaPhi*p->getMomAngleFactor();
  // keep momPhi within range [-PI,PI]
  while ( std::fabs(momPhi) > 2*M_PI) momPhi /= 2.;
  while (momPhi >  M_PI) momPhi -= 2*M_PI;
  while (momPhi < -M_PI) momPhi += 2*M_PI;
 
  // (**) finally create the punch-through particle as a ISFParticle
 
  ATH_MSG_DEBUG("createExitPs input parameters: doAnti? = "<< pdg*anti <<" energy = "<< energy <<" theta = "<< theta <<" phi = "<< phi <<" momTheta = "<< momTheta << " momPhi " << momPhi );
 
 
  ISF::ISFParticle *par = createExitPs( isfp, pdg*anti, energy, theta, phi, momTheta, momPhi);
 
  return par;
}

◆ getVariableCDFmappings()

std::map< double, double > ISF::PunchThroughTool::getVariableCDFmappings ( const XMLCoreNode * node )

staticprivate

Definition at line 888 of file PunchThroughTool.cxx.

                                                                  {
 
    std::map<double, double>  mappings;
 
    if (node) {
      for (const XMLCoreNode* child : node->get_children ("CDFmap")) {
        double ref = child->get_double_attrib ("ref");
        double quant = child->get_double_attrib ("quant");
        mappings[ref] = quant;
      }
    }
 
    return mappings;
}

◆ initialize()

StatusCode ISF::PunchThroughTool::initialize ( )

virtual

AlgTool initialize method.

Definition at line 77 of file PunchThroughTool.cxx.

{
  ATH_MSG_DEBUG( "initialize()" );
 
  // initialise punch through classifier
  if (m_punchThroughClassifier.retrieve().isFailure() )
  {
    ATH_MSG_ERROR (m_punchThroughClassifier.propertyName() << ": Failed to retrieve tool " << m_punchThroughClassifier.type());
    return StatusCode::FAILURE;
  }
 
  // resolving lookuptable file
  std::string resolvedFileName = PathResolverFindCalibFile (m_filenameLookupTable);
  if (resolvedFileName.empty()) {
    ATH_MSG_ERROR( "[ punchthrough ] Parametrisation file '" << m_filenameLookupTable << "' not found" );
    return StatusCode::FAILURE;
  }
  ATH_MSG_INFO( "[ punchthrough ] Parametrisation file found: " << resolvedFileName );
 
  // open the LookupTable file
  m_fileLookupTable = new TFile( resolvedFileName.c_str(), "READ");
  if (!m_fileLookupTable) {
    ATH_MSG_WARNING("[ punchthrough ] unable to open the lookup-table for the punch-through simulation (file does not exist)");
    return StatusCode::FAILURE;
  }
 
  if (!m_fileLookupTable->IsOpen()) {
    ATH_MSG_WARNING("[ punchthrough ] unable to open the lookup-table for the punch-through simulation (wrong or empty file?)");
    return StatusCode::FAILURE;
  }
 
  //retrieve inverse CDF config file
  if (!initializeInverseCDF(PathResolverFindCalibFile(m_filenameInverseCDF)))
  {
    ATH_MSG_WARNING("[ punchthrough ] unable to open or read the inverse CDF config");
    return StatusCode::FAILURE;
  }
 
  //retrieve inverse PCA config file
  if (!initializeInversePCA(PathResolverFindCalibFile(m_filenameInversePCA)))
  {
    ATH_MSG_WARNING("[ punchthrough ] unable to open or read the inverse PCA config");
    return StatusCode::FAILURE;
  }
 
  //check first the size of infoMap for both PCA and CDF, they should be equal
  if (!(m_xml_info_pca.size() == m_xml_info_cdf.size()))
  {
    ATH_MSG_WARNING("[ punchthrough ] size of infoMap for PCA and CDF differs! Something is wrong with input xml files.");
    return StatusCode::FAILURE;
  }
 
  // retrieve the ParticleProperties handle
  ATH_CHECK( m_particlePropSvc.retrieve() );
 
  // and the particle data table
  m_particleDataTable = m_particlePropSvc->PDT();
  if (!m_particleDataTable)
    {
      ATH_MSG_FATAL( " [ punchthrough ] Could not get ParticleDataTable! Cannot associate pdg code with charge! Abort. " );
      return StatusCode::FAILURE;
    }
 
  // Geometry identifier service
  if ( !m_geoIDSvc.empty() && m_geoIDSvc.retrieve().isFailure())
    {
      ATH_MSG_FATAL ( "[ punchthrough ] Could not retrieve GeometryIdentifier Service. Abort");
      return StatusCode::FAILURE;
    }
 
  //envelope definition service
  if (m_envDefSvc.retrieve().isFailure() )
    {
      ATH_MSG_ERROR( "[ punchthrough ] Could not retrieve " << m_envDefSvc );
      return StatusCode::FAILURE;
    }
 
  //--------------------------------------------------------------------------------
  // register all the punch-through particles which will be simulated
  for ( unsigned int num = 0; num < m_punchThroughParticles.size(); num++ )
    {
      const int pdg = m_punchThroughParticles[num];
      // if no information is given on the creation of anti-particles -> do not simulate anti-particles
      const bool doAnti = ( num < m_doAntiParticles.size() ) ? m_doAntiParticles[num] : false;
      // if no information is given on the minimum energy -> take 50. MeV as default
      const double minEnergy = ( num < m_minEnergy.size() ) ? m_minEnergy[num] : 50.;
      // if no information is given on the maximum number of punch-through particles -> take -1 as default
      const int maxNum = ( num < m_minEnergy.size() ) ? m_maxNumParticles[num] : -1;
      // if no information is given on the scale factor for the number of particles -> take 1. as defaulft
      const double numFactor = ( num < m_numParticlesFactor.size() ) ? m_numParticlesFactor[num] : 1.;
      // if no information is given on the position angle factor -> take 1.
      const double posAngleFactor = ( num < m_posAngleFactor.size() ) ? m_posAngleFactor[num] : 1.;
      // if no information is given on the momentum angle factor -> take 1.
      const double momAngleFactor = ( num < m_momAngleFactor.size() ) ? m_momAngleFactor[num] : 1.;
      // if no information is given on the scale factor for the energy -> take 1. as default
      const double energyFactor = ( num < m_energyFactor.size() ) ? m_energyFactor[num] : 1.;
 
      // register the particle
      ATH_MSG_VERBOSE("[ punchthrough ] registering punch-through particle type with pdg = " << pdg );
      if ( registerParticle( pdg, doAnti, minEnergy, maxNum, numFactor, energyFactor, posAngleFactor, momAngleFactor )
           != StatusCode::SUCCESS)
        {
          ATH_MSG_ERROR("[ punchthrough ] unable to register punch-through particle type with pdg = " << pdg);
        }
    }
 
  // TODO: implement punch-through parameters for different m_pdgInitiators
  //       currently m_pdgInitiators is only used to filter out particles
 
  // check if more correlations were given than particle types were registered
  unsigned int numCorrelations = m_correlatedParticle.size();
  if ( numCorrelations > m_punchThroughParticles.size() )
    {
      ATH_MSG_WARNING("[ punchthrough ] more punch-through particle correlations are given, than punch-through particle types are registered (skipping the last ones)");
      numCorrelations = m_punchThroughParticles.size();
    }
 
  // now register correlation between particles
  for ( unsigned int num = 0; num < numCorrelations; num++ )
    {
      const int pdg1 = m_punchThroughParticles[num];
      const int pdg2 = m_correlatedParticle[num];
      const double fullCorrEnergy = ( num < m_fullCorrEnergy.size() ) ? m_fullCorrEnergy[num] : 0.;
      const double minCorrEnergy = ( num < m_minCorrEnergy.size() ) ?  m_minCorrEnergy[num] : 0.;
 
      // if correlatedParticle==0 is given -> no correlation
      if ( ! pdg2) continue;
      // register it
      if ( registerCorrelation(pdg1, pdg2, minCorrEnergy, fullCorrEnergy) != StatusCode::SUCCESS )
        {
          ATH_MSG_ERROR("[ punchthrough ] unable to register punch-through particle correlation for pdg1=" << pdg1 << " pdg2=" << pdg2 );
        }
    }
 
  // get the calo-MS border coordinates. Look at calo and MS geometry definitions, if same R and Z -> boundary surface
 
  const RZPairVector* rzMS = &(m_envDefSvc->getMuonRZBoundary());
  const RZPairVector* rzCalo = &(m_envDefSvc->getCaloRZBoundary());
 
  bool found1, found2;
  found1=false; found2=false;
 
  for ( size_t i=0; i<rzCalo->size();++i)
    {
      const double r_tempCalo = rzCalo->at(i).first;
      const double z_tempCalo = rzCalo->at(i).second;
 
      if (r_tempCalo> m_beamPipe)
        {
          for ( size_t j=0; j<rzMS->size();++j)
            {
              const double r_tempMS =rzMS->at(j).first;
              const double z_tempMS =rzMS->at(j).second;
 
              if (r_tempCalo==r_tempMS && z_tempCalo==z_tempMS && found1==false )
                {
                  m_R1=r_tempMS;
                  m_z1=std::fabs(z_tempMS);
                  found1=true;
                  continue;
                }
              else if (r_tempCalo==r_tempMS && z_tempCalo==z_tempMS && r_tempCalo!=m_R1 && std::fabs(z_tempCalo)!=m_z1)
                {
                  m_R2=r_tempMS;
                  m_z2=std::fabs(z_tempMS);
                  found2=true;
                }
            }
 
          if (found1==true && found2==true) break;
        }
    }
 
  //in case geometry description changes
  if (found1 == false) ATH_MSG_ERROR ("first coordinate of calo-MS border not found");
  if (found2 == false) ATH_MSG_ERROR ("second coordinate of calo-MS border not found; first one is: R1 ="<<m_R1<<" z1 ="<<m_z1);
 
  //now order the found values
  double r_temp, z_temp;
  if (m_R1>m_R2) { r_temp=m_R1; m_R1=m_R2; m_R2=r_temp; } //m_R1 - smaller one
  if (m_z1<m_z2) { z_temp=m_z1; m_z1=m_z2; m_z2=z_temp; } //m_z1 - bigger one
 
  if (m_R1==m_R2 || m_z1==m_z2) ATH_MSG_ERROR ("[punch-though] Bug in propagation calculation! R1="<<m_R1<<" R2 = "<<m_R2<<" z1="<<m_z1<<" z2= "<<m_z2 );
  else                  ATH_MSG_DEBUG ("calo-MS boundary coordinates: R1="<<m_R1<<" R2 = "<<m_R2<<" z1="<<m_z1<<" z2= "<<m_z2);
 
  // close the file with the lookuptable
  m_fileLookupTable->Close();
 
  ATH_MSG_INFO( "punchthrough initialization is successful" );
  return StatusCode::SUCCESS;
}

◆ initializeInverseCDF()

StatusCode ISF::PunchThroughTool::initializeInverseCDF ( const std::string & quantileTransformerConfigFile )

private

Definition at line 862 of file PunchThroughTool.cxx.

                                                                                          {
    //parse xml that contains config for inverse CDF for each of punch through particle kinematics
    XMLCoreParser p;
    std::unique_ptr<XMLCoreNode> doc = p.parse (inverseCdfConfigFile);
 
    ATH_MSG_INFO( "[ punchthrough ] Loading inverse CDF: " << inverseCdfConfigFile);
 
    //check info first
    m_xml_info_cdf = getInfoMap("CDFMappings", *doc);
 
    for (unsigned int i = 0; i < m_xml_info_cdf.size(); i++) {
      ATH_MSG_DEBUG( "[PunchThroughG4Tool] m_xml_info_cdf[" << i << "].name = " << m_xml_info_cdf[i].name);
 
      if (const XMLCoreNode* node = doc->get_child ("CDFMappings/" + m_xml_info_cdf[i].name)) {
        m_variable0_inverse_cdf.push_back(getVariableCDFmappings (node->get_child("variable0")));
        m_variable1_inverse_cdf.push_back(getVariableCDFmappings (node->get_child("variable1")));
        m_variable2_inverse_cdf.push_back(getVariableCDFmappings (node->get_child("variable2")));
        m_variable3_inverse_cdf.push_back(getVariableCDFmappings (node->get_child("variable3")));
        m_variable4_inverse_cdf.push_back(getVariableCDFmappings (node->get_child("variable4")));
      }
    }
 
    return StatusCode::SUCCESS;
}

◆ initializeInversePCA()

StatusCode ISF::PunchThroughTool::initializeInversePCA ( const std::string & inversePCAConfigFile )

private

Definition at line 820 of file PunchThroughTool.cxx.

                                                                                          {
 
    XMLCoreParser p;
    std::unique_ptr<XMLCoreNode> doc = p.parse (inversePCAConfigFile);
 
    ATH_MSG_INFO( "[ punchthrough ] Loading inversePCA: " << inversePCAConfigFile);
 
    //check info first
    m_xml_info_pca = getInfoMap("PCAinverse", *doc);
 
    auto getRow = [] (const XMLCoreNode* node,
                      const std::string& attrib,
                      int imax)
      -> std::vector<double>
    {
      std::vector<double> row;
      for (int i = 0; i <= imax; ++i) {
        // Dynamically create property name
        std::string propName = attrib + std::to_string(i);
        row.push_back (node->get_double_attrib (propName));
      }
      return row;
    };
 
    for (unsigned int i = 0; i < m_xml_info_pca.size(); i++) {
      std::vector<std::vector<double>> PCA_matrix;
 
      if (const XMLCoreNode* node = doc->get_child ("PCAinverse/" + m_xml_info_pca[i].name)) {
        for (const XMLCoreNode* matrix : node->get_children ("PCAmatrix")) {
          PCA_matrix.push_back(getRow(matrix, "comp_", 4));
        }
        for (const XMLCoreNode* means : node->get_children ("PCAmeans")) {
          m_PCA_means.push_back(getRow(means, "mean_", 4));
        }
      }
 
      m_inverse_PCA_matrix.push_back(std::move(PCA_matrix));
    }
    
    return StatusCode::SUCCESS;
}

◆ interpolateEnergy()

double ISF::PunchThroughTool::interpolateEnergy	(	const double &	energy,
		CLHEP::HepRandomEngine *	rndmEngine ) const

private

Definition at line 918 of file PunchThroughTool.cxx.

                                                                                                         {
 
    ATH_MSG_DEBUG("[ punchthrough ] interpolating incoming energy: " << energy);
 
    std::string energyPointsString;
    for (auto element:m_energyPoints){
        energyPointsString += std::to_string(element) + " ";
    }
 
    ATH_MSG_DEBUG("[ punchthrough ] available energy points: " << energyPointsString);
 
    auto const upperEnergy = std::upper_bound(m_energyPoints.begin(), m_energyPoints.end(), energy);
 
    if(upperEnergy == m_etaPoints.end()){ //if no energy greater than input energy, choose greatest energy
        ATH_MSG_DEBUG("[ punchthrough ] incoming energy > largest energy point, returning greatest energy point: " << m_energyPoints.back());
        return m_energyPoints.back();
    }
    else if(upperEnergy == m_etaPoints.begin()){ //if smallest energy greater than input energy, choose smallest energy
        ATH_MSG_DEBUG("[ punchthrough ] incoming energy < smallest energy point, returning smallest energy point: " << *upperEnergy);
        return *upperEnergy;
    }
 
    ATH_MSG_DEBUG("[ punchthrough ] energy points upper_bound: "<< *upperEnergy);
 
    double randomShoot = CLHEP::RandFlat::shoot(rndmEngine);
 
    ATH_MSG_DEBUG("[ punchthrough ] Shooting random number: "<< randomShoot);
 
    double midPoint = *std::prev(upperEnergy)*M_SQRT2;
 
    if(energy <  midPoint){ //if energy smaller than mid point in log(energy)
 
        double distance = std::abs(energy - *std::prev(upperEnergy))/((midPoint) - *std::prev(upperEnergy));
 
        ATH_MSG_DEBUG( "[ punchthrough ] incoming energy is closest to prev(upper_bound) in log(energy), distance: " << distance );
 
        if(randomShoot < distance){
            ATH_MSG_DEBUG( "[ punchthrough ] randomShoot < distance, returning upper_bound " << *upperEnergy );
            return *upperEnergy;
        }
        ATH_MSG_DEBUG( "[ punchthrough ] randomShoot > distance, returning prev(upper_bound) " << *std::prev(upperEnergy) );
 
        return *std::prev(upperEnergy);
    }
    else if(energy >  midPoint){ //if energy greater than mid point in log(energy)
 
        double distance = std::abs(energy - *upperEnergy)/((*upperEnergy - midPoint));
 
        ATH_MSG_DEBUG( "[ punchthrough ] incoming energy is closest to upper_bound in log(energy), distance: " << distance );
 
        if(randomShoot < distance){
            ATH_MSG_DEBUG( "[ punchthrough ] randomShoot < distance, returning prev(upper_bound) " << *std::prev(upperEnergy) );
            return *std::prev(upperEnergy);
        }
        ATH_MSG_DEBUG( "[ punchthrough ] randomShoot > distance, returning upper_bound " << *upperEnergy );
        return *upperEnergy;
    }
 
    return *upperEnergy;
}

◆ interpolateEta()

double ISF::PunchThroughTool::interpolateEta	(	const double &	eta,
		CLHEP::HepRandomEngine *	rndmEngine ) const

private

Definition at line 979 of file PunchThroughTool.cxx.

                                                                                                   {
 
    double absEta = std::abs(eta);
 
    ATH_MSG_DEBUG("[ punchthrough ] interpolating incoming abs(eta): " << absEta);
 
    std::string etaPointsString;
    for (auto element:m_etaPoints){
        etaPointsString += std::to_string(element) + " ";
    }
 
    ATH_MSG_DEBUG("[ punchthrough ] available eta points: " << etaPointsString);
 
    auto const upperEta = std::upper_bound(m_etaPoints.begin(), m_etaPoints.end(), absEta);
 
    if(upperEta == m_etaPoints.end()){
        ATH_MSG_DEBUG("[ punchthrough ] incoming abs(eta) > largest eta point, returning greatest eta point: " << m_etaPoints.back());
        return m_etaPoints.back();
    }
 
 
    ATH_MSG_DEBUG("[ punchthrough ] eta points upper_bound: "<< *upperEta);
 
    double randomShoot = CLHEP::RandFlat::shoot(rndmEngine);
 
    ATH_MSG_DEBUG("[ punchthrough ] Shooting random number: "<< randomShoot);
 
    if(std::abs(absEta - *upperEta) <  std::abs(absEta - *std::prev(upperEta))){
 
        double distance = std::abs(absEta - *upperEta)/((*upperEta - *std::prev(upperEta))/2);
 
        ATH_MSG_DEBUG( "[ punchthrough ] abs(eta) is closer to eta points upper_bound, distance: " << distance );
 
        if(randomShoot > distance){
            ATH_MSG_DEBUG( "[ punchthrough ] randomShoot > distance, returning upper_bound " << *upperEta );
            return *upperEta;
        }
 
        ATH_MSG_DEBUG( "[ punchthrough ] randomShoot < distance, returning prev(upper_bound) " << *std::prev(upperEta) );
 
        return *std::prev(upperEta);
    }
    else if(std::abs(absEta - *std::prev(upperEta)) <  std::abs(absEta - *upperEta)){
 
        if(std::prev(upperEta) == m_etaPoints.begin()){
            ATH_MSG_DEBUG( "[ punchthrough ] prev of upper bound is begin, returning that: " << *std::prev(upperEta) );
            return *std::prev(upperEta);
        }
 
        double distance = std::abs(absEta - *std::prev(upperEta))/((*std::prev(upperEta) - *std::prev(std::prev(upperEta)))/2);
 
        ATH_MSG_DEBUG( "[ punchthrough ] abs(eta) is closer to eta points prev(upper_bound), distance: " << distance );
 
        if(randomShoot > distance){
            ATH_MSG_DEBUG( "[ punchthrough ] randomShoot > distance, returning prev(prev(upper_bound)) " << *std::prev(std::prev(upperEta)) );
 
            return *std::prev(std::prev(upperEta));
        }
        ATH_MSG_DEBUG( "[ punchthrough ] randomShoot < distance, returning prev(upper_bound) " << *std::prev(upperEta) );
 
        return *std::prev(upperEta);
    }
 
    return *std::prev(upperEta);
}

◆ inverseCdfTransform()

double ISF::PunchThroughTool::inverseCdfTransform	(	double	variable,
		const std::map< double, double > &	inverse_cdf_map )

staticprivate

Definition at line 903 of file PunchThroughTool.cxx.

                                                                                                              {
 
    double norm_cdf = normal_cdf(variable);
 
    auto upper = inverse_cdf_map.upper_bound(norm_cdf);
    auto lower = upper--;
 
    double m = (upper->second - lower->second)/(upper->first - lower->first);
    double c = lower->second - m * lower->first;
    double transformed = m * norm_cdf + c;
 
    return transformed;
 
}

◆ inversePCA()

std::vector< double > ISF::PunchThroughTool::inversePCA	(	int	pcaCdfIterator,
		std::vector< double > &	variables ) const

private

Definition at line 811 of file PunchThroughTool.cxx.

{
    std::vector<double> transformed_variables = dotProduct(m_inverse_PCA_matrix[pcaCdfIterator], variables);
 
    std::transform (transformed_variables.begin(), transformed_variables.end(), m_PCA_means[pcaCdfIterator].begin(), transformed_variables.begin(), std::plus<double>()); // + means
 
    return transformed_variables;
}

◆ normal_cdf()

double ISF::PunchThroughTool::normal_cdf ( double x )

staticprivate

Definition at line 727 of file PunchThroughTool.cxx.

                                               {
 
    return  0.5 * TMath::Erfc(-x * M_SQRT1_2);
}

◆ passedParamIterator()

int ISF::PunchThroughTool::passedParamIterator	(	int	pid,
		double	eta,
		const std::vector< InfoMap > &	mapvect ) const

private

Definition at line 767 of file PunchThroughTool.cxx.

{
    //convert the pid to absolute value and string for query
    int pidStrSingle = std::abs(pid);
    //STEP 1
    //filter items matching pid first
 
    for (int i = 0; const InfoMap& m : mapvect) {
      ++i;
      const std::vector<int>& v = m.pidStr;
      if(std::find(v.begin(), v.end(),pidStrSingle)==v.end()) continue;
      assert(m.etaMaxs.size() == m.etaMins.size());
      for (unsigned int j = 0; j < m.etaMins.size(); j++){ // assume size etaMinsVect == etaMaxsVect
        double etaMinToCompare = m.etaMins[j];
        double etaMaxToCompare = m.etaMaxs[j];
        if((eta >= etaMinToCompare) && (eta < etaMaxToCompare)){
          //PASS CONDITION
          //then choose the passing one and note it's iterator
          return i-1; //in case more than 1 match (ambiguous case)
        }
      }
    }
    return 0;
}

◆ propagator()

Amg::Vector3D ISF::PunchThroughTool::propagator	(	double	theta,
		double	phi ) const

private

get particle through the calorimeter

Definition at line 1317 of file PunchThroughTool.cxx.

{
  // phi, theta - direction of the punch-through particle coming into calo
  //particle propagates inside the calorimeter along the straight line
  //coordinates of this particles when exiting the calo (on calo-MS boundary)
 
  double x, y, z, r;
 
  // cylinders border angles
  const double theta1 = atan (m_R1/m_z1);
  const double theta2 = atan (m_R1/m_z2);
  const double theta3 = atan (m_R2/m_z2);
  //where is the particle
 
  if (theta >= 0 && theta < theta1)
    {
      z = m_z1;
      r = std::fabs (m_z1*tan(theta));
    }
  else if (theta >= theta1 && theta < theta2)
    {
      z = m_R1/tan(theta);
      r = m_R1;
    }
  else if (theta >= theta2 && theta < theta3)
    {
      z = m_z2;
      r = std::fabs(m_z2*tan(theta));;
    }
  else if (theta >= theta3 && theta < (TMath::Pi()-theta3) )
    {
      z = m_R2/tan(theta);
      r = m_R2;
    }
  else if (theta >= (TMath::Pi()-theta3) && theta < (TMath::Pi()-theta2) )
    {
      z = -m_z2;
      r = std::fabs(m_z2*tan(theta));
    }
  else if (theta >= (TMath::Pi()-theta2) && theta < (TMath::Pi()-theta1) )
    {
      z = m_R1/tan(theta);
      r = m_R1;
    }
  else if (theta >= (TMath::Pi()-theta1) && theta <= TMath::Pi() )
    {
      z = -m_z1;
      r = std::fabs(m_z1*tan(theta));
    }
 
  //parallel universe
  else
    {
      ATH_MSG_WARNING ( "Given theta angle is incorrect, setting particle position to (0, 0, 0)");
      x = 0.0; y = 0.0; z = 0.0; r = 0.0;
    }
 
  x = r*cos(phi);
  y = r*sin(phi);
  Amg::Vector3D pos(x, y, z);
 
  ATH_MSG_DEBUG("position of produced punch-through particle: x = "<< x <<" y = "<< y <<" z = "<< z<<" r = "<< pos.perp() <<"std::sqrt(x^2+y^2) = "<< std::sqrt(x*x+y*y) );
  ATH_MSG_DEBUG("GeoID thinks: Calo: "<< m_geoIDSvc->inside(pos, AtlasDetDescr::fAtlasCalo) <<" MS: "<< m_geoIDSvc->inside(pos,AtlasDetDescr::fAtlasMS));
 
  return pos;
}

◆ readLookuptablePDF()

std::unique_ptr< ISF::PDFcreator > ISF::PunchThroughTool::readLookuptablePDF	(	int	pdgID,
		const std::string &	folderName )

private

reads out the lookuptable for the given type of particle

Definition at line 1183 of file PunchThroughTool.cxx.

{
 
      // will hold the PDFcreator class which will be returned at the end
      // this will store the distributions for the punch through particles
      // (as map of energy & eta of the incoming particle)
      //PDFcreator *pdf = new PDFcreator();
      std::unique_ptr<ISF::PDFcreator> pdf = std::make_unique<ISF::PDFcreator>();
 
          //Get directory object
          std::stringstream dirName;
          dirName << folderName << pdg;
          pdf->setName(dirName.str().c_str());
 
          TDirectory * dir = (TDirectory*)m_fileLookupTable->Get(dirName.str().c_str());
          if(! dir)
          {
            ATH_MSG_ERROR( "[ punchthrough ] unable to retrieve directory object ("<< folderName << pdg << ")" );
            return nullptr;
          }
 
 
 
          //Get list of all objects in directory
          TIter keyList(dir->GetListOfKeys());
          TKey *key;
 
          while ((key = (TKey*)keyList())) {
 
            //Get histogram object from key and its name
            TH1* hist = nullptr;
 
            std::string histName;
            if(strcmp(key->GetClassName(), "TH1F") == 0){
              hist = (TH1*)key->ReadObj();
              histName = hist->GetName();
            }
 
            //extract energy and eta from hist name 6 and 1 to position delimeters correctly
            std::string strEnergy = histName.substr( histName.find_first_of('E') + 1, histName.find_first_of('_')-histName.find_first_of('E') - 1 );
            histName.erase(0, histName.find_first_of('_') + 1);
            std::string strEtaMin = histName.substr( histName.find("etaMin") + 6, histName.find_first_of('_') - histName.find("etaMin") - 6 );
            histName.erase(0, histName.find('_') + 1);
            std::string strEtaMax = histName.substr( histName.find("etaMax") + 6, histName.length());
 
            //create integers to store in map
            const int energy = std::stoi(strEnergy);
            const int etaMin = std::stoi(strEtaMin);
 
            //Add entry to pdf map
            pdf->addToEnergyEtaHist1DMap(energy, etaMin, hist);
 
            //create doubles to store energy and eta points for interpolation
            const double energyDbl = static_cast<double>(energy);
            const double etaDbl = static_cast<double>(etaMin)/100.;
 
            //create vectors to store the eta and energy points, this allows us to interpolate
            if (std::find(m_energyPoints.begin(), m_energyPoints.end(), energyDbl) == m_energyPoints.end()) {
                m_energyPoints.push_back(energyDbl);
            }
            if (std::find(m_etaPoints.begin(), m_etaPoints.end(), etaDbl) == m_etaPoints.end()) {
                m_etaPoints.push_back(etaDbl);
            }
 
          }
 
 
 
      return pdf;
}

◆ registerCorrelation()

StatusCode ISF::PunchThroughTool::registerCorrelation	(	int	pdgID1,
		int	pdgID2,
		double	minCorrEnergy = 0.,
		double	fullCorrEnergy = 0. )

private

register a correlation for the two given types of punch-through particles with a given energy threshold above which we will have full correlation

Definition at line 1128 of file PunchThroughTool.cxx.

{
  // find the given pdgs in the registered particle ids
  std::map<int, PunchThroughParticle*>::iterator location1 = m_particles.find(pdgID1);
  std::map<int, PunchThroughParticle*>::iterator location2 = m_particles.find(pdgID2);
 
  // if at least one of the given pdgs was not registered yet -> return an error
  if ( (location1 == m_particles.end()) || (location2 == m_particles.end()) )
    return StatusCode::FAILURE;
 
  // now look for the correlation histograms
  std::stringstream name;
  name << "NumExitCorrelations/x_PDG" << std::abs(pdgID1) << "__y_PDG" << std::abs(pdgID2) << "__lowE";
  TH2F *hist1_2_lowE = (TH2F*)m_fileLookupTable->Get(name.str().c_str());
  name.str("");
  name << "NumExitCorrelations/x_PDG" << std::abs(pdgID1) << "__y_PDG" << std::abs(pdgID2) << "__highE";
  TH2F *hist1_2_highE = (TH2F*)m_fileLookupTable->Get(name.str().c_str());
  name.str("");
  name << "NumExitCorrelations/x_PDG" << std::abs(pdgID2) << "__y_PDG" << std::abs(pdgID1) << "__lowE";
  TH2F *hist2_1_lowE = (TH2F*)m_fileLookupTable->Get(name.str().c_str());
  name.str("");
  name << "NumExitCorrelations/x_PDG" << std::abs(pdgID2) << "__y_PDG" << std::abs(pdgID1) << "__highE";
  TH2F *hist2_1_highE = (TH2F*)m_fileLookupTable->Get(name.str().c_str());
  // check if the histograms exist
  if ( (!hist1_2_lowE) || (!hist2_1_lowE) || (!hist1_2_highE) || (!hist2_1_highE) )
    {
      ATH_MSG_ERROR("[ punchthrough ] unable to retrieve the correlation data for PDG IDs " << pdgID1 <<  " and " << pdgID2);
      return StatusCode::FAILURE;
    }
 
  // TODO: if only one of the two histograms exists, create the other one
  //       by mirroring the data
 
  const double lowE = getFloatAfterPatternInStr( hist1_2_lowE->GetTitle(), "elow_");
  const double midE = getFloatAfterPatternInStr( hist1_2_lowE->GetTitle(), "ehigh_");
  //TODO: check if the same:
  // double midE = getFloatAfterPatternInStr( hist1_2_lowE->GetTitle(), "elow_");
  const double upperE = getFloatAfterPatternInStr( hist1_2_highE->GetTitle(), "ehigh_");
  // now store the correlation either way  id1->id2 and id2->id1
  m_particles[pdgID1]->setCorrelation(pdgID2, hist2_1_lowE, hist2_1_highE,
                                      minCorrEnergy, fullCorrEnergy,
                                      lowE, midE, upperE);
 
  m_particles[pdgID2]->setCorrelation(pdgID1, hist1_2_lowE, hist1_2_highE,
                                      minCorrEnergy, fullCorrEnergy,
                                      lowE, midE, upperE);
  return StatusCode::SUCCESS;
}

◆ registerParticle()

StatusCode ISF::PunchThroughTool::registerParticle	(	int	pdgID,
		bool	doAntiparticle = false,
		double	minEnergy = 0.,
		int	maxNumParticles = -1,
		double	numParticlesFactor = 1.,
		double	energyFactor = 1.,
		double	posAngleFactor = 1.,
		double	momAngleFactor = 1. )

private

registers a type of punch-through particles which will be simulated

Definition at line 1051 of file PunchThroughTool.cxx.

{
    // read in the data needed to construct the distributions for the number of punch-through particles
 
      // (1.) get the distribution function for the number of punch-through particles
      std::unique_ptr<ISF::PDFcreator> pdf_num(readLookuptablePDF(pdg, "FREQ_PDG"));
      if (!pdf_num ) return StatusCode::FAILURE; // return error if something went wrong
 
      // (2.) get the PDF for the punch-through energy
      std::unique_ptr<PDFcreator> pdf_pca0 (readLookuptablePDF(pdg, "PCA0_PDG"));
      if (!pdf_pca0)
        {
          return StatusCode::FAILURE; // return error if something went wrong
        }
 
      // (3.) get the PDF for the punch-through particles difference in
      //      theta compared to the incoming particle
      std::unique_ptr<PDFcreator> pdf_pca1 (readLookuptablePDF(pdg, "PCA1_PDG"));
      if (!pdf_pca1)
        {
          return StatusCode::FAILURE;
        }
 
      // (4.) get the PDF for the punch-through particles difference in
      //      phi compared to the incoming particle
      std::unique_ptr<PDFcreator> pdf_pca2 (readLookuptablePDF(pdg, "PCA2_PDG"));
      if (!pdf_pca2)
        {
          return StatusCode::FAILURE;
        }
 
      // (5.) get the PDF for the punch-through particle momentum delta theta angle
      std::unique_ptr<PDFcreator> pdf_pca3 (readLookuptablePDF(pdg, "PCA3_PDG"));
      if (!pdf_pca3)
        {
          return StatusCode::FAILURE;
        }
 
      // (6.) get the PDF for the punch-through particle momentum delta phi angle
      std::unique_ptr<PDFcreator> pdf_pca4 (readLookuptablePDF(pdg, "PCA4_PDG"));
      if (!pdf_pca4)
        {
          return StatusCode::FAILURE;
        }
 
      // (7.) now finally store all this in the right std::map
      PunchThroughParticle *particle = new PunchThroughParticle(pdg, doAntiparticle);
      particle->setNumParticlesPDF(std::move(pdf_num));
      particle->setPCA0PDF(std::move(pdf_pca0));
      particle->setPCA1PDF(std::move(pdf_pca1));
      particle->setPCA2PDF(std::move(pdf_pca2));
      particle->setPCA3PDF(std::move(pdf_pca3));
      particle->setPCA4PDF(std::move(pdf_pca4));
 
      // (8.) set some additional particle and simulation properties
      const double restMass = m_particleDataTable->particle(std::abs(pdg))->mass();
      minEnergy = ( minEnergy > restMass ) ? minEnergy : restMass;
      particle->setMinEnergy(minEnergy);
      particle->setMaxNumParticles(maxNumParticles);
      particle->setNumParticlesFactor(numParticlesFactor);
      particle->setEnergyFactor(energyFactor);
      particle->setPosAngleFactor(posAngleFactor);
      particle->setMomAngleFactor(momAngleFactor);
 
      // (9.) insert this PunchThroughParticle instance into the std::map class member
      m_particles[pdg] = particle;
 
      return StatusCode::SUCCESS;
}

Member Data Documentation

◆ m_beamPipe

DoubleProperty ISF::PunchThroughTool::m_beamPipe {this, "BeamPipeRadius", 500.}

private

beam pipe radius

Definition at line 207 of file PunchThroughTool.h.

207{this, "BeamPipeRadius", 500.};

◆ m_correlatedParticle

IntegerArrayProperty ISF::PunchThroughTool::m_correlatedParticle {this, "CorrelatedParticle", {}, "holds the pdg of the correlated particle for each given pdg"}

private

Definition at line 187 of file PunchThroughTool.h.

187{this, "CorrelatedParticle", {}, "holds the pdg of the correlated particle for each given pdg"};

◆ m_doAntiParticles

BooleanArrayProperty ISF::PunchThroughTool::m_doAntiParticles {this, "DoAntiParticles", {}, "vector of bools to determine if anti-particles are created for each punch-through particle type"}

private

Definition at line 186 of file PunchThroughTool.h.

186{this, "DoAntiParticles", {}, "vector of bools to determine if anti-particles are created for each punch-through particle type"};

◆ m_energyFactor

DoubleArrayProperty ISF::PunchThroughTool::m_energyFactor {this, "EnergyFactor", {}, "scale the energy of the punch-through particles"}

private

Definition at line 195 of file PunchThroughTool.h.

195{this, "EnergyFactor", {}, "scale the energy of the punch-through particles"};

◆ m_energyPoints

std::vector<double> ISF::PunchThroughTool::m_energyPoints

private

energy and eta points in param

Definition at line 154 of file PunchThroughTool.h.

◆ m_envDefSvc

ServiceHandle<IEnvelopeDefSvc> ISF::PunchThroughTool::m_envDefSvc {this, "EnvelopeDefSvc", "AtlasGeometry_EnvelopeDefSvc"}

private

Definition at line 204 of file PunchThroughTool.h.

204{this, "EnvelopeDefSvc", "AtlasGeometry_EnvelopeDefSvc"};

◆ m_etaPoints

std::vector<double> ISF::PunchThroughTool::m_etaPoints

private

Definition at line 155 of file PunchThroughTool.h.

◆ m_fileLookupTable

TFile* ISF::PunchThroughTool::m_fileLookupTable {nullptr}

private

ROOT objects.

the punch-through lookup table file

Definition at line 167 of file PunchThroughTool.h.

167{nullptr};

◆ m_filenameInverseCDF

StringProperty ISF::PunchThroughTool::m_filenameInverseCDF {this, "FilenameInverseCdf", "", "holds the filename of inverse quantile transformer config"}

private

Definition at line 178 of file PunchThroughTool.h.

178{this, "FilenameInverseCdf", "", "holds the filename of inverse quantile transformer config"};

◆ m_filenameInversePCA

StringProperty ISF::PunchThroughTool::m_filenameInversePCA {this, "FilenameInversePca", "", "holds the filename of inverse PCA config"}

private

Definition at line 179 of file PunchThroughTool.h.

179{this, "FilenameInversePca", "", "holds the filename of inverse PCA config"};

◆ m_filenameLookupTable

StringProperty ISF::PunchThroughTool::m_filenameLookupTable {this, "FilenameLookupTable", "CaloPunchThroughParametrisation.root", "holds the filename of the lookup table"}

private

Properties.

Definition at line 177 of file PunchThroughTool.h.

177{this, "FilenameLookupTable", "CaloPunchThroughParametrisation.root", "holds the filename of the lookup table"};

◆ m_fullCorrEnergy

DoubleArrayProperty ISF::PunchThroughTool::m_fullCorrEnergy {this, "FullCorrelationEnergy", {}, "holds the energy threshold above which a particle correlation is fully developed"}

private

Definition at line 189 of file PunchThroughTool.h.

189{this, "FullCorrelationEnergy", {}, "holds the energy threshold above which a particle correlation is fully developed"};

◆ m_geoIDSvc

ServiceHandle<IGeoIDSvc> ISF::PunchThroughTool::m_geoIDSvc {this, "GeoIDSvc", "ISF::GeoIDSvc"}

private

Definition at line 203 of file PunchThroughTool.h.

203{this, "GeoIDSvc", "ISF::GeoIDSvc"};

◆ m_initiatorsEtaRange

DoubleArrayProperty ISF::PunchThroughTool::m_initiatorsEtaRange {this, "InitiatorsEtaRange", {}, "vector of min and max abs eta range to allow punch through initiators"}

private

Definition at line 184 of file PunchThroughTool.h.

184{this, "InitiatorsEtaRange", {}, "vector of min and max abs eta range to allow punch through initiators"};

◆ m_initiatorsMinEnergy

IntegerArrayProperty ISF::PunchThroughTool::m_initiatorsMinEnergy {this, "InitiatorsMinEnergy", {}, "vector of punch-through initiator min energies to create punch through"}

private

Definition at line 183 of file PunchThroughTool.h.

183{this, "InitiatorsMinEnergy", {}, "vector of punch-through initiator min energies to create punch through"};

◆ m_inverse_PCA_matrix

std::vector<std::vector<std::vector<double> > > ISF::PunchThroughTool::m_inverse_PCA_matrix

private

pca vectors

Definition at line 210 of file PunchThroughTool.h.

◆ m_maxNumParticles

IntegerArrayProperty ISF::PunchThroughTool::m_maxNumParticles {this, "MaxNumParticles", {}, "maximum number of punch-through particles for each particle type"}

private

Definition at line 193 of file PunchThroughTool.h.

193{this, "MaxNumParticles", {}, "maximum number of punch-through particles for each particle type"};

◆ m_minCorrEnergy

DoubleArrayProperty ISF::PunchThroughTool::m_minCorrEnergy {this, "MinCorrelationEnergy", {}, "holds the energy threshold below which no particle correlation is computed"}

private

Definition at line 188 of file PunchThroughTool.h.

188{this, "MinCorrelationEnergy", {}, "holds the energy threshold below which no particle correlation is computed"};

◆ m_minEnergy

DoubleArrayProperty ISF::PunchThroughTool::m_minEnergy {this, "MinEnergy", {}, "punch-through particles minimum energies"}

private

Definition at line 192 of file PunchThroughTool.h.

192{this, "MinEnergy", {}, "punch-through particles minimum energies"};

◆ m_momAngleFactor

DoubleArrayProperty ISF::PunchThroughTool::m_momAngleFactor {this, "ScaleMomDeflectionAngles", {}, "tuning parameter to scale the momentum deflection angles"}

private

Definition at line 191 of file PunchThroughTool.h.

191{this, "ScaleMomDeflectionAngles", {}, "tuning parameter to scale the momentum deflection angles"};

◆ m_numParticlesFactor

DoubleArrayProperty ISF::PunchThroughTool::m_numParticlesFactor {this, "NumParticlesFactor", {}, "scale the number of punch-through particles"}

private

Definition at line 194 of file PunchThroughTool.h.

194{this, "NumParticlesFactor", {}, "scale the number of punch-through particles"};

◆ m_particleDataTable

const HepPDT::ParticleDataTable* ISF::PunchThroughTool::m_particleDataTable {nullptr}

private

ParticleDataTable needed to get connection pdg_code <-> charge.

Definition at line 164 of file PunchThroughTool.h.

164{nullptr};

◆ m_particlePropSvc

ServiceHandle<IPartPropSvc> ISF::PunchThroughTool::m_particlePropSvc {this, "PartPropSvc", "PartPropSvc", "particle properties svc"}

private

Definition at line 202 of file PunchThroughTool.h.

202{this, "PartPropSvc", "PartPropSvc", "particle properties svc"};

◆ m_particles

std::map<int, PunchThroughParticle*> ISF::PunchThroughTool::m_particles

private

needed to create punch-through particles with the right distributions

store all punch-through information for each particle id

Definition at line 170 of file PunchThroughTool.h.

◆ m_PCA_means

std::vector<std::vector<double> > ISF::PunchThroughTool::m_PCA_means

private

Definition at line 211 of file PunchThroughTool.h.

◆ m_pdgInitiators

IntegerArrayProperty ISF::PunchThroughTool::m_pdgInitiators {this, "PunchThroughInitiators", {}, "vector of punch-through initiator pgds"}

private

Definition at line 182 of file PunchThroughTool.h.

182{this, "PunchThroughInitiators", {}, "vector of punch-through initiator pgds"};

◆ m_posAngleFactor

DoubleArrayProperty ISF::PunchThroughTool::m_posAngleFactor {this, "ScalePosDeflectionAngles", {}, "tuning parameter to scale the position deflection angles"}

private

Definition at line 190 of file PunchThroughTool.h.

190{this, "ScalePosDeflectionAngles", {}, "tuning parameter to scale the position deflection angles"};

◆ m_punchThroughClassifier

PublicToolHandle<IPunchThroughClassifier> ISF::PunchThroughTool::m_punchThroughClassifier {this, "PunchThroughClassifier", "ISF_PunchThroughClassifier", ""}

private

Definition at line 181 of file PunchThroughTool.h.

181{this, "PunchThroughClassifier", "ISF_PunchThroughClassifier", ""};

◆ m_punchThroughParticles

IntegerArrayProperty ISF::PunchThroughTool::m_punchThroughParticles {this, "PunchThroughParticles", {}, "vector of pdgs of the particles produced in punch-throughs"}

private

Definition at line 185 of file PunchThroughTool.h.

185{this, "PunchThroughParticles", {}, "vector of pdgs of the particles produced in punch-throughs"};

◆ m_R1

double ISF::PunchThroughTool::m_R1 {0.}

private

calo-MS borders

Definition at line 158 of file PunchThroughTool.h.

158{0.};

◆ m_R2

double ISF::PunchThroughTool::m_R2 {0.}

private

Definition at line 159 of file PunchThroughTool.h.

159{0.};

◆ m_variable0_inverse_cdf

std::vector<std::map<double, double> > ISF::PunchThroughTool::m_variable0_inverse_cdf

private

(vector of map) for CDF mappings

Definition at line 218 of file PunchThroughTool.h.

◆ m_variable1_inverse_cdf

std::vector<std::map<double, double> > ISF::PunchThroughTool::m_variable1_inverse_cdf

private

Definition at line 219 of file PunchThroughTool.h.

◆ m_variable2_inverse_cdf

std::vector<std::map<double, double> > ISF::PunchThroughTool::m_variable2_inverse_cdf

private

Definition at line 220 of file PunchThroughTool.h.

◆ m_variable3_inverse_cdf

std::vector<std::map<double, double> > ISF::PunchThroughTool::m_variable3_inverse_cdf

private

Definition at line 221 of file PunchThroughTool.h.

◆ m_variable4_inverse_cdf

std::vector<std::map<double, double> > ISF::PunchThroughTool::m_variable4_inverse_cdf

private

Definition at line 222 of file PunchThroughTool.h.

◆ m_xml_info_cdf

std::vector<InfoMap> ISF::PunchThroughTool::m_xml_info_cdf

private

Definition at line 215 of file PunchThroughTool.h.

◆ m_xml_info_pca

std::vector<InfoMap> ISF::PunchThroughTool::m_xml_info_pca

private

infoMaps

Definition at line 214 of file PunchThroughTool.h.

◆ m_z1

double ISF::PunchThroughTool::m_z1 {0.}

private

Definition at line 160 of file PunchThroughTool.h.

160{0.};

◆ m_z2

double ISF::PunchThroughTool::m_z2 {0.}

private

Definition at line 161 of file PunchThroughTool.h.

161{0.};

The documentation for this class was generated from the following files:

Classes

Public Member Functions

Private Member Functions

Static Private Member Functions

Private Attributes

Detailed Description

Constructor & Destructor Documentation

◆ PunchThroughTool()

◆ ~PunchThroughTool()

Member Function Documentation

◆ computePunchThroughParticles()

◆ createExitPs()

◆ dotProduct()

◆ finalize()

◆ getAllParticles()

◆ getCorrelatedParticles()

◆ getFloatAfterPatternInStr()

◆ getInfoMap()

◆ getOneParticle()

◆ getVariableCDFmappings()

◆ initialize()

◆ initializeInverseCDF()

◆ initializeInversePCA()

◆ interpolateEnergy()

◆ interpolateEta()

◆ inverseCdfTransform()

◆ inversePCA()

◆ normal_cdf()

◆ passedParamIterator()

◆ propagator()

◆ readLookuptablePDF()

◆ registerCorrelation()

◆ registerParticle()

Member Data Documentation

◆ m_beamPipe

◆ m_correlatedParticle

◆ m_doAntiParticles

◆ m_energyFactor

◆ m_energyPoints

◆ m_envDefSvc

◆ m_etaPoints

◆ m_fileLookupTable

◆ m_filenameInverseCDF

◆ m_filenameInversePCA

◆ m_filenameLookupTable

◆ m_fullCorrEnergy

◆ m_geoIDSvc

◆ m_initiatorsEtaRange

◆ m_initiatorsMinEnergy

◆ m_inverse_PCA_matrix

◆ m_maxNumParticles

◆ m_minCorrEnergy

◆ m_minEnergy

◆ m_momAngleFactor

◆ m_numParticlesFactor

◆ m_particleDataTable

◆ m_particlePropSvc

◆ m_particles

◆ m_PCA_means

◆ m_pdgInitiators

◆ m_posAngleFactor

◆ m_punchThroughClassifier

◆ m_punchThroughParticles

◆ m_R1

◆ m_R2

◆ m_variable0_inverse_cdf

◆ m_variable1_inverse_cdf

◆ m_variable2_inverse_cdf

◆ m_variable3_inverse_cdf

◆ m_variable4_inverse_cdf

◆ m_xml_info_cdf

◆ m_xml_info_pca

◆ m_z1

◆ m_z2