ECL cluster data. More...

#include <ECLCluster.h>

Inheritance diagram for ECLCluster:

Public Types
enum class	EHypothesisBit : short unsigned int { c_none = 1 << 0 , c_muonNPhotons = 1 << 1 , c_chargedHadron = 1 << 2 , c_electronNPhotons = 1 << 3 , c_nPhotons = 1 << 4 , c_neutralHadron = 1 << 5 , c_mergedPi0 = 1 << 6 }
	The hypothesis bits for this ECLCluster (Connected region (CR) is split using this hypothesis. More...

enum class	EStatusBit : short unsigned int { c_TriggerCluster = 1 << 0 , c_TriggerClusterMatching = 1 << 1 , c_PulseShapeDiscrimination = 1 << 2 , c_fitTimeFailed = 1 << 3 , c_timeResolutionFailed = 1 << 4 }
	The status information for the ECLCluster. More...

Public Member Functions
	ECLCluster ()
	default constructor : all values are set to 0, IDs set to -1, flags to false

void	setIsTrack (bool istrack)
	Set m_isTrack true if the cluster matches with a track.

void	setStatus (EStatusBit status)
	Set status.

void	addStatus (EStatusBit bitmask)
	Add bitmask to current status.

void	removeStatus (EStatusBit bitmask)
	Remove bitmask from current status.

void	setHypothesis (EHypothesisBit hypothesis)
	Set hypotheses.

void	addHypothesis (EHypothesisBit bitmask)
	Add bitmask to current hypothesis.

void	removeHypothesis (EHypothesisBit bitmask)
	Remove bitmask from current hypothesis.

void	setMaxECellId (unsigned short cellid)
	Set cellID of maximum energy crystal.

void	setConnectedRegionId (int crid)
	Set connected region id.

void	setClusterId (int clusterid)
	Set cluster id.

void	setCovarianceMatrix (double covArray[6])
	Set covariance matrix (3x3), i.e.

void	setUncertaintyEnergy (double energyunc)
	Set energy uncertainty.

void	setUncertaintyTheta (double thetaunc)
	Set theta uncertainty.

void	setUncertaintyPhi (double phiunc)
	Set phi uncertainty.

void	setdeltaL (double deltaL)
	Set deltaL for shower shape.

void	setMinTrkDistance (double distance)
	Set distance between cluster COG and track extrapolation to ECL.

void	setMinTrkDistanceID (unsigned short distanceID)
	Set array index of the nearest track.

void	setAbsZernike40 (double zernike40)
	Set Zernike 40.

void	setAbsZernike51 (double zernike51)
	Set Zernike 51.

void	setZernikeMVA (double zernikemva)
	Set Zernike 20.

void	setE1oE9 (double E1oE9)
	Set E1/E9 energy ratio.

void	setE9oE21 (double E9oE21)
	Set E9/E21 energy ratio.

void	setPulseShapeDiscriminationMVA (double PulseShapeDiscriminationMVA)
	set Pulse Shape Discrimination MVA

void	setNumberOfHadronDigits (double NumberOfHadronDigits)
	set Number of hadron digits in cluster .

void	setSecondMoment (double secondmoment)
	Set SecondMoment.

void	setLAT (double LAT)
	Set Lateral distribution parameter.

void	setNumberOfCrystals (double noc)
	Set number of crystals (sum of weights).

void	setTime (double time)
	Set time information.

void	setDeltaTime99 (double dtime99)
	Set 99% time containment range.

void	setTheta (double theta)
	Set Theta of Shower (radian).

void	setPhi (double phi)
	Set Phi of Shower (radian).

void	setR (double r)
	Set R (in cm).

void	setEnergy (double energy)
	Set Corrected Energy (GeV).

void	setEnergyRaw (double energyraw)
	Set Uncorrect Energy deposited (GeV).

void	setEnergyHighestCrystal (double energyhighestcrystal)
	Set energy of highest energetic crystal (GeV).

bool	isTrack () const
	Return true if the cluster matches with track.

bool	isNeutral () const
	Return true if cluster has no match with track.

unsigned short	getStatus () const
	Return status.

unsigned short	getHypotheses () const
	Return hypothesis (expert only, this returns a bti pattern).

unsigned short	getMaxECellId () const
	Return cellID of maximum energy crystal.

int	getConnectedRegionId () const
	Return connected region id.

int	getClusterId () const
	Return cluster id.

int	getUniqueClusterId () const
	Return unique cluster id = 1000 * regionId + clusterId.

double	getMinTrkDistance () const
	Get distance between cluster COG and track extrapolation to ECL.

double	getMinTrkDistanceID () const
	Get array index of the nearest track.

double	getDeltaL () const
	Return deltaL.

double	getAbsZernike40 () const
	Return Zernike moment 40 (shower shape variable).

double	getAbsZernike51 () const
	Return Zernike moment 51 (shower shape variable).

double	getZernikeMVA () const
	Return MVA based hadron/photon value based on Zernike moments (shower shape variable).

double	getE1oE9 () const
	Return E1/E9 (shower shape variable).

double	getE9oE21 () const
	Return E9/E21 (shower shape variable).

double	getPulseShapeDiscriminationMVA () const
	Return MVA classifier that uses pulse shape discrimination to identify electromagnetic vs hadronic showers.

double	getNumberOfHadronDigits () const
	Return number of hadron digits in cluster.

double	getSecondMoment () const
	Return second moment (shower shape variable).

double	getLAT () const
	Return LAT (shower shape variable).

double	getNumberOfCrystals () const
	Return number of a crystals in a shower (sum of weights).

double	getTime () const
	Return cluster time.

double	getDeltaTime99 () const
	Return cluster delta time 99.

double	getPhi () const
	Return Corrected Phi of Shower (radian).

double	getTheta () const
	Return Corrected Theta of Shower (radian).

double	getR () const
	Return R.

double	getEnergy (EHypothesisBit hypothesis) const
	Return Energy (GeV).

double	getEnergyRaw () const
	Return Uncorrected Energy deposited (GeV)

double	getEnergyHighestCrystal () const
	Return energy of highest energetic crystal in cluster (GeV)

double	getUncertaintyEnergy () const
	Return Uncertainty on Energy of Shower.

double	getUncertaintyTheta () const
	Return Uncertainty on Theta of Shower.

double	getUncertaintyPhi () const
	Return Uncertainty on Phi of Shower.

ROOT::Math::XYZVector	getClusterPosition () const
	Return ROOT::Math::XYZVector on cluster position (x,y,z)

TMatrixDSym	getCovarianceMatrix3x3 () const
	Return TMatrixDsym 3x3 covariance matrix for E, Phi and Theta.

int	getDetectorRegion () const
	Return detector region: 0: below acceptance, 1: FWD, 2: BRL, 3: BWD, 11: FWDGAP, 13: BWDGAP.

bool	hasStatus (EStatusBit bitmask) const
	Return if specific status bit is set.

bool	hasHypothesis (EHypothesisBit bitmask) const
	Return if specific hypothesis bit is set.

bool	isTriggerCluster () const
	Check if ECLCluster is matched to an ECLTRGCluster.

bool	hasTriggerClusterMatching () const
	Check if ECLTRGCluster to ECLCluster matcher has run.

bool	hasPulseShapeDiscrimination () const
	Check if ECLCluster has any ECLDigits with waveforms that also passed two component fit chi2 threshold in eclClusterPSD module.

bool	hasFailedFitTime () const
	Check if ECLCluster has a fit time that failed.

bool	hasFailedTimeResolution () const
	Check if ECLCluster has a time resolution calculation that failed.

void	addRelationTo (const RelationsInterface< BASE > *object, float weight=1.0, const std::string &namedRelation="") const
	Add a relation from this object to another object (with caching).

void	addRelationTo (const TObject *object, float weight=1.0, const std::string &namedRelation="") const
	Add a relation from this object to another object (no caching, can be quite slow).

void	copyRelations (const RelationsInterface< BASE > *sourceObj)
	Copies all relations of sourceObj (pointing from or to sourceObj) to this object (including weights).

template<class TO >
RelationVector< TO >	getRelationsTo (const std::string &name="", const std::string &namedRelation="") const
	Get the relations that point from this object to another store array.

template<class FROM >
RelationVector< FROM >	getRelationsFrom (const std::string &name="", const std::string &namedRelation="") const
	Get the relations that point from another store array to this object.

template<class T >
RelationVector< T >	getRelationsWith (const std::string &name="", const std::string &namedRelation="") const
	Get the relations between this object and another store array.

template<class TO >
TO *	getRelatedTo (const std::string &name="", const std::string &namedRelation="") const
	Get the object to which this object has a relation.

template<class FROM >
FROM *	getRelatedFrom (const std::string &name="", const std::string &namedRelation="") const
	Get the object from which this object has a relation.

template<class T >
T *	getRelated (const std::string &name="", const std::string &namedRelation="") const
	Get the object to or from which this object has a relation.

template<class TO >
std::pair< TO *, float >	getRelatedToWithWeight (const std::string &name="", const std::string &namedRelation="") const
	Get first related object & weight of relation pointing to an array.

template<class FROM >
std::pair< FROM *, float >	getRelatedFromWithWeight (const std::string &name="", const std::string &namedRelation="") const
	Get first related object & weight of relation pointing from an array.

template<class T >
std::pair< T *, float >	getRelatedWithWeight (const std::string &name="", const std::string &namedRelation="") const
	Get first related object & weight of relation pointing from/to an array.

virtual std::string	getName () const
	Return a short name that describes this object, e.g.

virtual std::string	getInfoHTML () const
	Return a short summary of this object's contents in HTML format.

std::string	getInfo () const
	Return a short summary of this object's contents in raw text format.

std::string	getArrayName () const
	Get name of array this object is stored in, or "" if not found.

int	getArrayIndex () const
	Returns this object's array index (in StoreArray), or -1 if not found.

Protected Member Functions
TClonesArray *	getArrayPointer () const
	Returns the pointer to the raw DataStore array holding this object (protected since these arrays are easy to misuse).

Private Member Functions
	ClassDef (ECLCluster, 15)
	Class definition.

Private Attributes
bool	m_isTrack
	Is related to track (true) or not (false).

unsigned short	m_status
	Cluster status.

unsigned short	m_hypotheses
	Hypothesis.

unsigned short	m_maxECellId
	CellID of maximum energy crystal.

int	m_connectedRegionId
	Connected Region of this cluster.

int	m_clusterId
	Cluster id.

Double32_t	m_sqrtcovmat_00
	Covariance entry 00 sigma_E (1% to 25% between 10 MeV and 8 GeV)

Double32_t	m_covmat_10
	Covariance matrix 10, not used yet.

Double32_t	m_sqrtcovmat_11
	Covariance matrix 11, sigma_phi, between 0 and 50 mrad.

Double32_t	m_covmat_20
	Covariance matrix 20, not used yet.

Double32_t	m_covmat_21
	Covariance matrix 21, not used yet.

Double32_t	m_sqrtcovmat_22
	Covariance matrix 22, sigma_theta, between 0 and 50 mrad.

Double32_t	m_deltaL
	Delta L as defined in arXiv:0711.1593.

Double32_t	m_minTrkDistance
	Distance between cluster center and track extrapolation to ECL.

unsigned short	m_minTrkDistanceID
	Array index of the nearest track.

Double32_t	m_absZernike40
	Zernike 40.

Double32_t	m_absZernike51
	Zernike 51.

Double32_t	m_zernikeMVA
	Zernike MVA.

Double32_t	m_E1oE9
	E1oE9.

Double32_t	m_E9oE21
	E9oE21.

Double32_t	m_secondMoment
	Second Moment.

Double32_t	m_LAT
	LAT.

Double32_t	m_numberOfCrystals
	Number of Crystals in a shower (sum of weights).

Double32_t	m_time
	Time.

Double32_t	m_deltaTime99
	Delta Time 99.

Double32_t	m_theta
	Theta [rad].

Double32_t	m_phi
	Phi [rad].

Double32_t	m_r
	Radius [cm].

Double32_t	m_logEnergy
	< Log.

Double32_t	m_logEnergyRaw
	Log.

Double32_t	m_logEnergyHighestCrystal
	Log.

Double32_t	m_PulseShapeDiscriminationMVA
	MVA classifier that uses pulse shape discrimination to identify electromagnetic vs hadronic showers.

Double32_t	m_ClusterHadronIntensity
	Cluster Hadron Component Intensity (pulse shape discrimination variable).

Double32_t	m_NumberOfHadronDigits
	Number of hadron digits in cluster (pulse shape discrimination variable).

DataStore::StoreEntry *	m_cacheDataStoreEntry
	Cache of the data store entry to which this object belongs.

int	m_cacheArrayIndex
	Cache of the index in the TClonesArray to which this object belongs.

Detailed Description

ECL cluster data.

Definition at line 27 of file ECLCluster.h.

Member Enumeration Documentation

◆ EHypothesisBit

enum class EHypothesisBit : short unsigned int

strong

The hypothesis bits for this ECLCluster (Connected region (CR) is split using this hypothesis.

Enumerator
c_none	None as initializer.
c_muonNPhotons	CR is split into a muon and n photons (T1)
c_chargedHadron	CR is reconstructed as a charged hadron (T2)
c_electronNPhotons	CR is split into an electron and n photons (T3)
c_nPhotons	CR is split into n photons (N1)
c_neutralHadron	CR is reconstructed as a neutral hadron (N2)
c_mergedPi0	CR is reconstructed as merged pi0 (N3)

Definition at line 31 of file ECLCluster.h.

                              : short unsigned int {
      c_none = 1 << 0,
      c_muonNPhotons = 1 << 1,
      c_chargedHadron = 1 << 2,
      c_electronNPhotons = 1 << 3,
      c_nPhotons = 1 << 4,
      c_neutralHadron = 1 << 5,
      c_mergedPi0 = 1 << 6
    };

◆ EStatusBit

enum class EStatusBit : short unsigned int

strong

The status information for the ECLCluster.

Enumerator
c_TriggerCluster	bit 0: ECLCluster is matched to a ECL trigger cluster
c_TriggerClusterMatching	bit 1: ECLCluster to ECLTRGCluster matcher was run
c_PulseShapeDiscrimination	bit 2: ECLCluster has pulse shape discrimination variables.
c_fitTimeFailed	bit 3: ECLCluster has fit time that failed.
c_timeResolutionFailed	bit 4: ECLCluster has time resolution calculation that failed.

Definition at line 49 of file ECLCluster.h.

                          : short unsigned int {
      c_TriggerCluster   = 1 << 0,
      c_TriggerClusterMatching = 1 << 1,
      c_PulseShapeDiscrimination = 1 << 2,
      c_fitTimeFailed = 1 << 3,
      c_timeResolutionFailed = 1 << 4,
 
    };

Constructor & Destructor Documentation

◆ ECLCluster()

ECLCluster ( )

inline

default constructor : all values are set to 0, IDs set to -1, flags to false

Definition at line 67 of file ECLCluster.h.

                 :
      m_isTrack(false),
      m_status(0),
      m_hypotheses(static_cast<unsigned short>(EHypothesisBit::c_nPhotons)), // set to c_nPhotons for b2bii
      m_maxECellId(0),
      m_connectedRegionId(0),
      m_clusterId(0),
      m_sqrtcovmat_00(0.),
      m_covmat_10(0.),
      m_sqrtcovmat_11(0.),
      m_covmat_20(0.),
      m_covmat_21(0.),
      m_sqrtcovmat_22(0.),
      m_deltaL(0.),
      m_minTrkDistance(0.),
      m_minTrkDistanceID(65535),
      m_absZernike40(0.),
      m_absZernike51(0.),
      m_zernikeMVA(0.),
      m_E1oE9(0.),
      m_E9oE21(0.),
      m_secondMoment(0.),
      m_LAT(0.),
      m_numberOfCrystals(0.),
      m_time(0.),
      m_deltaTime99(0.),
      m_theta(0.),
      m_phi(0.),
      m_r(0.),
      m_logEnergy(-5.),
      m_logEnergyRaw(-5.),
      m_logEnergyHighestCrystal(-5.),
      m_PulseShapeDiscriminationMVA(0.5),
      m_ClusterHadronIntensity(0.),
      m_NumberOfHadronDigits(0.) {}

Member Function Documentation

◆ addHypothesis()

void addHypothesis ( EHypothesisBit bitmask )

inline

Add bitmask to current hypothesis.

Parameters

bitmask The status code which should be added.

Definition at line 129 of file ECLCluster.h.

129{ m_hypotheses |= static_cast<short unsigned>(bitmask); }

◆ addRelationTo() [1/2]

void addRelationTo	(	const RelationsInterface< BASE > *	object,
		float	weight = `1.0`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Add a relation from this object to another object (with caching).

Parameters

object	The object to which the relation should point.
weight	The weight of the relation.
namedRelation	Additional name for the relation, or "" for the default naming

Definition at line 142 of file RelationsObject.h.

    {
      if (object)
        DataStore::Instance().addRelation(this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                                          object, object->m_cacheDataStoreEntry, object->m_cacheArrayIndex, weight, namedRelation);
    }

◆ addRelationTo() [2/2]

void addRelationTo	(	const TObject *	object,
		float	weight = `1.0`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Add a relation from this object to another object (no caching, can be quite slow).

Parameters

object	The object to which the relation should point.
weight	The weight of the relation.
namedRelation	Additional name for the relation, or "" for the default naming

Definition at line 155 of file RelationsObject.h.

    {
      StoreEntry* toEntry = nullptr;
      int toIndex = -1;
      DataStore::Instance().addRelation(this, m_cacheDataStoreEntry, m_cacheArrayIndex, object, toEntry, toIndex, weight, namedRelation);
    }

◆ addStatus()

void addStatus ( EStatusBit bitmask )

inline

Add bitmask to current status.

Parameters

bitmask The status code which should be added.

Definition at line 113 of file ECLCluster.h.

113{ m_status |= static_cast<short unsigned>(bitmask); }

◆ copyRelations()

void copyRelations ( const RelationsInterface< BASE > * sourceObj )

inlineinherited

Copies all relations of sourceObj (pointing from or to sourceObj) to this object (including weights).

Useful if you want to make a complete copy of a StoreArray object to make modifications to it, but retain all information on linked objects.

Note: this only works if sourceObj inherits from the same base (e.g. RelationsObject), and only for related objects that also inherit from the same base.

Definition at line 170 of file RelationsObject.h.

    {
      if (!sourceObj)
        return;
      auto fromRels = sourceObj->getRelationsFrom<RelationsInterface<BASE>>("ALL");
      for (unsigned int iRel = 0; iRel < fromRels.size(); iRel++) {
        fromRels.object(iRel)->addRelationTo(this, fromRels.weight(iRel));
      }
 
      auto toRels = sourceObj->getRelationsTo<RelationsInterface<BASE>>("ALL");
      for (unsigned int iRel = 0; iRel < toRels.size(); iRel++) {
        this->addRelationTo(toRels.object(iRel), toRels.weight(iRel));
      }
    }

◆ getAbsZernike40()

double getAbsZernike40 ( ) const

inline

Return Zernike moment 40 (shower shape variable).

Definition at line 268 of file ECLCluster.h.

268{ return m_absZernike40; }

◆ getAbsZernike51()

double getAbsZernike51 ( ) const

inline

Return Zernike moment 51 (shower shape variable).

Definition at line 271 of file ECLCluster.h.

271{ return m_absZernike51; }

◆ getArrayIndex()

int getArrayIndex ( ) const

inlineinherited

Returns this object's array index (in StoreArray), or -1 if not found.

Definition at line 385 of file RelationsObject.h.

    {
      DataStore::Instance().findStoreEntry(this, m_cacheDataStoreEntry, m_cacheArrayIndex);
      return m_cacheArrayIndex;
    }

◆ getArrayName()

std::string getArrayName ( ) const

inlineinherited

Get name of array this object is stored in, or "" if not found.

Definition at line 377 of file RelationsObject.h.

    {
      DataStore::Instance().findStoreEntry(this, m_cacheDataStoreEntry, m_cacheArrayIndex);
      return m_cacheDataStoreEntry ? m_cacheDataStoreEntry->name : "";
    }

◆ getArrayPointer()

TClonesArray * getArrayPointer ( ) const

inlineprotectedinherited

Returns the pointer to the raw DataStore array holding this object (protected since these arrays are easy to misuse).

Definition at line 418 of file RelationsObject.h.

    {
      DataStore::Instance().findStoreEntry(this, m_cacheDataStoreEntry, m_cacheArrayIndex);
      if (!m_cacheDataStoreEntry)
        return nullptr;
      return m_cacheDataStoreEntry->getPtrAsArray();
    }

◆ getClusterId()

int getClusterId ( ) const

inline

Return cluster id.

Definition at line 253 of file ECLCluster.h.

253{return m_clusterId;}

◆ getClusterPosition()

ROOT::Math::XYZVector getClusterPosition ( ) const

Return ROOT::Math::XYZVector on cluster position (x,y,z)

Definition at line 44 of file ECLCluster.cc.

{
  const double cluster_x =  getR() * sin(getTheta()) * cos(getPhi());
  const double cluster_y =  getR() * sin(getTheta()) * sin(getPhi());
  const double cluster_z =  getR() * cos(getTheta());
  return ROOT::Math::XYZVector(cluster_x, cluster_y, cluster_z);
}

◆ getConnectedRegionId()

int getConnectedRegionId ( ) const

inline

Return connected region id.

Definition at line 250 of file ECLCluster.h.

250{return m_connectedRegionId;}

◆ getCovarianceMatrix3x3()

TMatrixDSym getCovarianceMatrix3x3 ( ) const

Return TMatrixDsym 3x3 covariance matrix for E, Phi and Theta.

Definition at line 52 of file ECLCluster.cc.

{
  TMatrixDSym covmatecl(3);
  covmatecl(0, 0) = m_sqrtcovmat_00 * m_sqrtcovmat_00;
  covmatecl(1, 0) = m_covmat_10;
  covmatecl(1, 1) = m_sqrtcovmat_11 * m_sqrtcovmat_11;
  covmatecl(2, 0) = m_covmat_20;
  covmatecl(2, 1) = m_covmat_21;
  covmatecl(2, 2) = m_sqrtcovmat_22 * m_sqrtcovmat_22;
 
  //make symmetric
  for (int i = 0; i < 3; i++)
    for (int j = 0; j < i ; j++)
      covmatecl(j, i) = covmatecl(i, j);
  return covmatecl;
}

◆ getDeltaL()

double getDeltaL ( ) const

inline

Return deltaL.

Definition at line 265 of file ECLCluster.h.

265{ return m_deltaL; }

◆ getDeltaTime99()

double getDeltaTime99 ( ) const

inline

Return cluster delta time 99.

Definition at line 301 of file ECLCluster.h.

301{return m_deltaTime99;}

◆ getDetectorRegion()

int getDetectorRegion ( ) const

Return detector region: 0: below acceptance, 1: FWD, 2: BRL, 3: BWD, 11: FWDGAP, 13: BWDGAP.

Definition at line 70 of file ECLCluster.cc.

{
  const double theta = getTheta();
 
  if (theta < 0.2164208) return 0;   // < 12.4deg
  if (theta < 0.5480334) return 1;   // < 31.4deg
  if (theta < 0.561996) return 11;   // < 32.2deg
  if (theta < 2.2462387) return 2;   // < 128.7
  if (theta < 2.2811453) return 13;   // < 130.7
  if (theta < 2.7070057) return 3;   // < 155.1
  else return 0;
}

◆ getE1oE9()

double getE1oE9 ( ) const

inline

Return E1/E9 (shower shape variable).

Definition at line 277 of file ECLCluster.h.

277{ return m_E1oE9; }

◆ getE9oE21()

double getE9oE21 ( ) const

inline

Return E9/E21 (shower shape variable).

Definition at line 280 of file ECLCluster.h.

280{ return m_E9oE21; }

◆ getEnergy()

double getEnergy ( ECLCluster::EHypothesisBit hypothesis ) const

Return Energy (GeV).

Definition at line 23 of file ECLCluster.cc.

{
  // check if cluster has the requested hypothesis
  if (!hasHypothesis(hypothesis)) {
    B2ERROR("This cluster does not support the requested hypothesis,"
            << LogVar(" it has the nPhotons hypothesis (y/n = 1/0): ", hasHypothesis(ECLCluster::EHypothesisBit::c_nPhotons))
            << LogVar(" and it has the neutralHadron hypothesis (y/n = 1/0): ", hasHypothesis(ECLCluster::EHypothesisBit::c_neutralHadron))
            << LogVar(" You requested the hypothesis bitmask: ", std::bitset<16>(static_cast<unsigned short>(hypothesis)).to_string()));
    return std::numeric_limits<double>::quiet_NaN();
  }
 
  // return the sensible answers
  if (hypothesis == ECLCluster::EHypothesisBit::c_nPhotons) return exp(m_logEnergy);
  else if (hypothesis == ECLCluster::EHypothesisBit::c_neutralHadron) return exp(m_logEnergyRaw);
  else {
    // throw error if the cluster is not supported
    B2ERROR("EHypothesisBit is not supported yet: " << static_cast<unsigned short>(hypothesis));
    return std::numeric_limits<double>::quiet_NaN();
  };
}

◆ getEnergyHighestCrystal()

double getEnergyHighestCrystal ( ) const

inline

Return energy of highest energetic crystal in cluster (GeV)

Definition at line 319 of file ECLCluster.h.

319{return exp(m_logEnergyHighestCrystal);}

◆ getEnergyRaw()

double getEnergyRaw ( ) const

inline

Return Uncorrected Energy deposited (GeV)

Definition at line 316 of file ECLCluster.h.

316{return exp(m_logEnergyRaw);}

◆ getHypotheses()

unsigned short getHypotheses ( ) const

inline

Return hypothesis (expert only, this returns a bti pattern).

Definition at line 244 of file ECLCluster.h.

244{return m_hypotheses;}

◆ getInfo()

std::string getInfo ( ) const

inlineinherited

Return a short summary of this object's contents in raw text format.

Returns the contents of getInfoHTML() while translating line-breaks etc.

Note: : You don't need to implement this function (it's not virtual), getInfoHTML() is enough.

Definition at line 370 of file RelationsObject.h.

    {
      return _RelationsInterfaceImpl::htmlToPlainText(getInfoHTML());
    }

◆ getInfoHTML()

virtual std::string getInfoHTML ( ) const

inlinevirtualinherited

Return a short summary of this object's contents in HTML format.

Reimplement this in your own class to provide useful output for display or debugging purposes. For example, you might do something like:

std::stringstream out;
out << "<b>PDG</b>: " << m_pdg << "<br>";
out << "<b>Covariance Matrix</b>: " << HTML::getString(getCovariance5()) << "<br>";
return out.str();

See also: Particle::getInfoHTML() for a more complex example.; HTML for some utility functions.; Use getInfo() to get a raw text version of this output.

Reimplemented in Particle, Cluster, MCParticle, PIDLikelihood, SoftwareTriggerResult, Track, TrackFitResult, TRGSummary, and RecoTrack.

Definition at line 362 of file RelationsObject.h.

362{ return ""; }

◆ getLAT()

double getLAT ( ) const

inline

Return LAT (shower shape variable).

Definition at line 292 of file ECLCluster.h.

292{return m_LAT;}

◆ getMaxECellId()

unsigned short getMaxECellId ( ) const

inline

Return cellID of maximum energy crystal.

Definition at line 247 of file ECLCluster.h.

247{return m_maxECellId;}

◆ getMinTrkDistance()

double getMinTrkDistance ( ) const

inline

Get distance between cluster COG and track extrapolation to ECL.

Definition at line 259 of file ECLCluster.h.

259{ return m_minTrkDistance; }

◆ getMinTrkDistanceID()

double getMinTrkDistanceID ( ) const

inline

Get array index of the nearest track.

Definition at line 262 of file ECLCluster.h.

262{ return m_minTrkDistanceID; }

◆ getName()

virtual std::string getName ( ) const

inlinevirtualinherited

Return a short name that describes this object, e.g.

pi+ for an MCParticle.

Reimplemented in Particle, MCParticle, and SpacePoint.

Definition at line 344 of file RelationsObject.h.

344{ return ""; }

◆ getNumberOfCrystals()

double getNumberOfCrystals ( ) const

inline

Return number of a crystals in a shower (sum of weights).

Definition at line 295 of file ECLCluster.h.

295{return m_numberOfCrystals;}

◆ getNumberOfHadronDigits()

double getNumberOfHadronDigits ( ) const

inline

Return number of hadron digits in cluster.

Definition at line 286 of file ECLCluster.h.

286{ return m_NumberOfHadronDigits; }

◆ getPhi()

double getPhi ( ) const

inline

Return Corrected Phi of Shower (radian).

Definition at line 304 of file ECLCluster.h.

304{ return m_phi;}

◆ getPulseShapeDiscriminationMVA()

double getPulseShapeDiscriminationMVA ( ) const

inline

Return MVA classifier that uses pulse shape discrimination to identify electromagnetic vs hadronic showers.

Definition at line 283 of file ECLCluster.h.

283{ return m_PulseShapeDiscriminationMVA; }

◆ getR()

double getR ( ) const

inline

Return R.

Definition at line 310 of file ECLCluster.h.

310{ return m_r; }

◆ getRelated()

T * getRelated	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the object to or from which this object has a relation.

Template Parameters

T	The class of objects to or from which the relation points.

Parameters

name	The name of the store array to or from which the relation points. If empty the default store array name for class T will be used. If the special name "ALL" is given all store arrays containing objects of type T are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: The first related object or a null pointer.

Definition at line 278 of file RelationsObject.h.

    {
      return static_cast<T*>(DataStore::Instance().getRelationWith(DataStore::c_BothSides, this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                             T::Class(), name, namedRelation).object);
    }

◆ getRelatedFrom()

FROM * getRelatedFrom	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the object from which this object has a relation.

Template Parameters

FROM	The class of objects from which the relation points.

Parameters

name	The name of the store array from which the relation points. If empty the default store array name for class FROM will be used. If the special name "ALL" is given all store arrays containing objects of type FROM are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: The first related object or a null pointer.

Definition at line 263 of file RelationsObject.h.

    {
      return static_cast<FROM*>(DataStore::Instance().getRelationWith(DataStore::c_FromSide, this, m_cacheDataStoreEntry,
                                m_cacheArrayIndex, FROM::Class(), name, namedRelation).object);
    }

◆ getRelatedFromWithWeight()

std::pair< FROM *, float > getRelatedFromWithWeight	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get first related object & weight of relation pointing from an array.

Template Parameters

FROM	The class of objects from which the relation points.

Parameters

name	The name of the store array from which the relation points. If empty the default store array name for class FROM will be used. If the special name "ALL" is given all store arrays containing objects of type FROM are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: Pair of first related object and the relation weight, or (NULL, 1.0) if none found.

Definition at line 314 of file RelationsObject.h.

    {
      RelationEntry entry = DataStore::Instance().getRelationWith(DataStore::c_FromSide, this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                                                                  FROM::Class(), name, namedRelation);
      return std::make_pair(static_cast<FROM*>(entry.object), entry.weight);
    }

◆ getRelatedTo()

TO * getRelatedTo	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the object to which this object has a relation.

Template Parameters

TO	The class of objects to which the relation points.

Parameters

name	The name of the store array to which the relation points. If empty the default store array name for class TO will be used. If the special name "ALL" is given all store arrays containing objects of type TO are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: The first related object or a null pointer.

Definition at line 248 of file RelationsObject.h.

    {
      return static_cast<TO*>(DataStore::Instance().getRelationWith(DataStore::c_ToSide, this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                              TO::Class(), name, namedRelation).object);
    }

◆ getRelatedToWithWeight()

std::pair< TO *, float > getRelatedToWithWeight	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get first related object & weight of relation pointing to an array.

Template Parameters

TO	The class of objects to which the relation points.

Parameters

name	The name of the store array to which the relation points. If empty the default store array name for class TO will be used. If the special name "ALL" is given all store arrays containing objects of type TO are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: Pair of first related object and the relation weight, or (NULL, 1.0) if none found.

Definition at line 297 of file RelationsObject.h.

    {
      RelationEntry entry = DataStore::Instance().getRelationWith(DataStore::c_ToSide, this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                                                                  TO::Class(), name, namedRelation);
      return std::make_pair(static_cast<TO*>(entry.object), entry.weight);
    }

◆ getRelatedWithWeight()

std::pair< T *, float > getRelatedWithWeight	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get first related object & weight of relation pointing from/to an array.

Template Parameters

T	The class of objects to or from which the relation points.

Parameters

name	The name of the store array to or from which the relation points. If empty the default store array name for class T will be used. If the special name "ALL" is given all store arrays containing objects of type T are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: Pair of first related object and the relation weight, or (NULL, 1.0) if none found.

Definition at line 331 of file RelationsObject.h.

    {
      RelationEntry entry = DataStore::Instance().getRelationWith(DataStore::c_BothSides, this, m_cacheDataStoreEntry, m_cacheArrayIndex,
                                                                  T::Class(), name, namedRelation);
      return std::make_pair(static_cast<T*>(entry.object), entry.weight);
    }

◆ getRelationsFrom()

RelationVector< FROM > getRelationsFrom	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the relations that point from another store array to this object.

Template Parameters

FROM	The class of objects from which the relations point.

Parameters

name	The name of the store array from which the relations point. If empty the default store array name for class FROM will be used. If the special name "ALL" is given all store arrays containing objects of type FROM are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: A vector of relations.

Definition at line 212 of file RelationsObject.h.

    {
      return RelationVector<FROM>(DataStore::Instance().getRelationsWith(DataStore::c_FromSide, this, m_cacheDataStoreEntry,
                                  m_cacheArrayIndex, FROM::Class(), name, namedRelation));
    }

◆ getRelationsTo()

RelationVector< TO > getRelationsTo	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the relations that point from this object to another store array.

Template Parameters

TO	The class of objects to which the relations point.

Parameters

name	The name of the store array to which the relations point. If empty the default store array name for class TO will be used. If the special name "ALL" is given all store arrays containing objects of type TO are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: A vector of relations.

Definition at line 197 of file RelationsObject.h.

    {
      return RelationVector<TO>(DataStore::Instance().getRelationsWith(DataStore::c_ToSide, this, m_cacheDataStoreEntry,
                                m_cacheArrayIndex, TO::Class(), name, namedRelation));
    }

◆ getRelationsWith()

RelationVector< T > getRelationsWith	(	const std::string &	name = `""`,
		const std::string &	namedRelation = `""`
	)		const

inlineinherited

Get the relations between this object and another store array.

Relations in both directions are returned.

Template Parameters

T	The class of objects to or from which the relations point.

Parameters

name	The name of the store array to or from which the relations point. If empty the default store array name for class T will be used. If the special name "ALL" is given all store arrays containing objects of type T are considered.
namedRelation	Additional name for the relation, or "" for the default naming

Returns: A vector of relations.

Definition at line 230 of file RelationsObject.h.

    {
      return RelationVector<T>(DataStore::Instance().getRelationsWith(DataStore::c_BothSides, this, m_cacheDataStoreEntry,
                               m_cacheArrayIndex, T::Class(), name, namedRelation));
    }

◆ getSecondMoment()

double getSecondMoment ( ) const

inline

Return second moment (shower shape variable).

Definition at line 289 of file ECLCluster.h.

289{ return m_secondMoment; }

◆ getStatus()

unsigned short getStatus ( ) const

inline

Return status.

Definition at line 241 of file ECLCluster.h.

241{return m_status;}

◆ getTheta()

double getTheta ( ) const

inline

Return Corrected Theta of Shower (radian).

Definition at line 307 of file ECLCluster.h.

307{return m_theta;}

◆ getTime()

double getTime ( ) const

inline

Return cluster time.

Definition at line 298 of file ECLCluster.h.

298{return m_time;}

◆ getUncertaintyEnergy()

double getUncertaintyEnergy ( ) const

inline

Return Uncertainty on Energy of Shower.

Definition at line 322 of file ECLCluster.h.

322{return (m_sqrtcovmat_00);}

◆ getUncertaintyPhi()

double getUncertaintyPhi ( ) const

inline

Return Uncertainty on Phi of Shower.

Definition at line 328 of file ECLCluster.h.

328{ return (m_sqrtcovmat_11);}

◆ getUncertaintyTheta()

double getUncertaintyTheta ( ) const

inline

Return Uncertainty on Theta of Shower.

Definition at line 325 of file ECLCluster.h.

325{return (m_sqrtcovmat_22);}

◆ getUniqueClusterId()

int getUniqueClusterId ( ) const

inline

Return unique cluster id = 1000 * regionId + clusterId.

Definition at line 256 of file ECLCluster.h.

256{return 1000 * m_connectedRegionId + m_clusterId;}

◆ getZernikeMVA()

double getZernikeMVA ( ) const

inline

Return MVA based hadron/photon value based on Zernike moments (shower shape variable).

Definition at line 274 of file ECLCluster.h.

274{ return m_zernikeMVA; }

◆ hasFailedFitTime()

bool hasFailedFitTime ( ) const

inline

Check if ECLCluster has a fit time that failed.

Definition at line 363 of file ECLCluster.h.

363{return hasStatus(EStatusBit::c_fitTimeFailed);}

Belle2::ECLCluster::hasStatus

bool hasStatus(EStatusBit bitmask) const

Return if specific status bit is set.

Definition: ECLCluster.h:344

◆ hasFailedTimeResolution()

bool hasFailedTimeResolution ( ) const

inline

Check if ECLCluster has a time resolution calculation that failed.

Definition at line 366 of file ECLCluster.h.

366{return hasStatus(EStatusBit::c_timeResolutionFailed);}

◆ hasHypothesis()

bool hasHypothesis ( EHypothesisBit bitmask ) const

inline

Return if specific hypothesis bit is set.

Parameters

bitmask The bitmask which is compared to the hypothesis of the cluster.

Returns: Returns true if the bitmask matches the hypothesis code of the cluster.

Definition at line 351 of file ECLCluster.h.

351{ return (m_hypotheses & static_cast<short unsigned>(bitmask)) == static_cast<short unsigned>(bitmask); }

◆ hasPulseShapeDiscrimination()

bool hasPulseShapeDiscrimination ( ) const

inline

Check if ECLCluster has any ECLDigits with waveforms that also passed two component fit chi2 threshold in eclClusterPSD module.

Definition at line 360 of file ECLCluster.h.

360{return hasStatus(EStatusBit::c_PulseShapeDiscrimination);}

◆ hasStatus()

bool hasStatus ( EStatusBit bitmask ) const

inline

Return if specific status bit is set.

Parameters

bitmask The bitmask which is compared to the status of the cluster.

Returns: Returns true if the bitmask matches the status code of the cluster.

Definition at line 344 of file ECLCluster.h.

344{ return (m_status & static_cast<short unsigned>(bitmask)) == static_cast<short unsigned>(bitmask); }

◆ hasTriggerClusterMatching()

bool hasTriggerClusterMatching ( ) const

inline

Check if ECLTRGCluster to ECLCluster matcher has run.

Definition at line 357 of file ECLCluster.h.

357{return hasStatus(EStatusBit::c_TriggerClusterMatching);}

◆ isNeutral()

bool isNeutral ( ) const

inline

Return true if cluster has no match with track.

Definition at line 238 of file ECLCluster.h.

238{ return !m_isTrack; }

◆ isTrack()

bool isTrack ( ) const

inline

Return true if the cluster matches with track.

Definition at line 235 of file ECLCluster.h.

235{ return m_isTrack; }

◆ isTriggerCluster()

bool isTriggerCluster ( ) const

inline

Check if ECLCluster is matched to an ECLTRGCluster.

Definition at line 354 of file ECLCluster.h.

354{return hasStatus(EStatusBit::c_TriggerCluster);}

◆ removeHypothesis()

void removeHypothesis ( EHypothesisBit bitmask )

inline

Remove bitmask from current hypothesis.

Parameters

bitmask The hypothesis code which should be removed.

Definition at line 136 of file ECLCluster.h.

136{ m_hypotheses &= (~static_cast<short unsigned>(bitmask)); }

◆ removeStatus()

void removeStatus ( EStatusBit bitmask )

inline

Remove bitmask from current status.

Parameters

bitmask The status code which should be removed.

Definition at line 120 of file ECLCluster.h.

120{ m_status &= (~static_cast<short unsigned>(bitmask)); }

◆ setAbsZernike40()

void setAbsZernike40 ( double zernike40 )

inline

Set Zernike 40.

Definition at line 181 of file ECLCluster.h.

181{ m_absZernike40 = zernike40; }

◆ setAbsZernike51()

void setAbsZernike51 ( double zernike51 )

inline

Set Zernike 51.

Definition at line 184 of file ECLCluster.h.

184{ m_absZernike51 = zernike51; }

◆ setClusterId()

void setClusterId ( int clusterid )

inline

Set cluster id.

Definition at line 145 of file ECLCluster.h.

145{ m_clusterId = clusterid; }

◆ setConnectedRegionId()

void setConnectedRegionId ( int crid )

inline

Set connected region id.

Definition at line 142 of file ECLCluster.h.

142{ m_connectedRegionId = crid; }

◆ setCovarianceMatrix()

void setCovarianceMatrix ( double covArray[6] )

inline

Set covariance matrix (3x3), i.e.

squared entries, for [0]->energy, [2]->phi, [5]->theta.

Definition at line 152 of file ECLCluster.h.

    {
      m_sqrtcovmat_00 = sqrt(fabs(covArray[0])); // energy
      m_covmat_10 = covArray[1];
      m_sqrtcovmat_11 = sqrt(fabs(covArray[2])); // phi
      m_covmat_20 = covArray[3];
      m_covmat_21 = covArray[4];
      m_sqrtcovmat_22 = sqrt(fabs(covArray[5])); // theta
    }

◆ setdeltaL()

void setdeltaL ( double deltaL )

inline

Set deltaL for shower shape.

Definition at line 172 of file ECLCluster.h.

172{ m_deltaL = deltaL; }

◆ setDeltaTime99()

void setDeltaTime99 ( double dtime99 )

inline

Set 99% time containment range.

Definition at line 214 of file ECLCluster.h.

214{ m_deltaTime99 = dtime99; }

◆ setE1oE9()

void setE1oE9 ( double E1oE9 )

inline

Set E1/E9 energy ratio.

Definition at line 190 of file ECLCluster.h.

190{ m_E1oE9 = E1oE9; }

◆ setE9oE21()

void setE9oE21 ( double E9oE21 )

inline

Set E9/E21 energy ratio.

Definition at line 193 of file ECLCluster.h.

193{ m_E9oE21 = E9oE21; }

◆ setEnergy()

void setEnergy ( double energy )

inline

Set Corrected Energy (GeV).

Definition at line 226 of file ECLCluster.h.

226{ m_logEnergy = log(energy); }

◆ setEnergyHighestCrystal()

void setEnergyHighestCrystal ( double energyhighestcrystal )

inline

Set energy of highest energetic crystal (GeV).

Definition at line 232 of file ECLCluster.h.

232{ m_logEnergyHighestCrystal = log(energyhighestcrystal); }

◆ setEnergyRaw()

void setEnergyRaw ( double energyraw )

inline

Set Uncorrect Energy deposited (GeV).

Definition at line 229 of file ECLCluster.h.

229{ m_logEnergyRaw = log(energyraw); }

◆ setHypothesis()

void setHypothesis ( EHypothesisBit hypothesis )

inline

Set hypotheses.

Definition at line 123 of file ECLCluster.h.

123{ m_hypotheses = static_cast<short unsigned>(hypothesis); }

◆ setIsTrack()

void setIsTrack ( bool istrack )

inline

Set m_isTrack true if the cluster matches with a track.

Definition at line 104 of file ECLCluster.h.

104{ m_isTrack = istrack; }

◆ setLAT()

void setLAT ( double LAT )

inline

Set Lateral distribution parameter.

Definition at line 205 of file ECLCluster.h.

205{ m_LAT = LAT; }

◆ setMaxECellId()

void setMaxECellId ( unsigned short cellid )

inline

Set cellID of maximum energy crystal.

Definition at line 139 of file ECLCluster.h.

139{m_maxECellId = cellid;}

◆ setMinTrkDistance()

void setMinTrkDistance ( double distance )

inline

Set distance between cluster COG and track extrapolation to ECL.

Definition at line 175 of file ECLCluster.h.

175{ m_minTrkDistance = distance; }

◆ setMinTrkDistanceID()

void setMinTrkDistanceID ( unsigned short distanceID )

inline

Set array index of the nearest track.

Definition at line 178 of file ECLCluster.h.

178{ m_minTrkDistanceID = distanceID; }

◆ setNumberOfCrystals()

void setNumberOfCrystals ( double noc )

inline

Set number of crystals (sum of weights).

Definition at line 208 of file ECLCluster.h.

208{ m_numberOfCrystals = noc; }

◆ setNumberOfHadronDigits()

void setNumberOfHadronDigits ( double NumberOfHadronDigits )

inline

set Number of hadron digits in cluster .

Definition at line 199 of file ECLCluster.h.

199{ m_NumberOfHadronDigits = NumberOfHadronDigits; }

◆ setPhi()

void setPhi ( double phi )

inline

Set Phi of Shower (radian).

Definition at line 220 of file ECLCluster.h.

220{ m_phi = phi; }

◆ setPulseShapeDiscriminationMVA()

void setPulseShapeDiscriminationMVA ( double PulseShapeDiscriminationMVA )

inline

set Pulse Shape Discrimination MVA

Definition at line 196 of file ECLCluster.h.

196{ m_PulseShapeDiscriminationMVA = PulseShapeDiscriminationMVA; }

◆ setR()

void setR ( double r )

inline

Set R (in cm).

Definition at line 223 of file ECLCluster.h.

223{ m_r = r; }

◆ setSecondMoment()

void setSecondMoment ( double secondmoment )

inline

Set SecondMoment.

Definition at line 202 of file ECLCluster.h.

202{ m_secondMoment = secondmoment; }

◆ setStatus()

void setStatus ( EStatusBit status )

inline

Set status.

Definition at line 107 of file ECLCluster.h.

107{ m_status = static_cast<short unsigned>(status); }

◆ setTheta()

void setTheta ( double theta )

inline

Set Theta of Shower (radian).

Definition at line 217 of file ECLCluster.h.

217{ m_theta = theta; }

◆ setTime()

void setTime ( double time )

inline

Set time information.

Definition at line 211 of file ECLCluster.h.

211{ m_time = time; }

◆ setUncertaintyEnergy()

void setUncertaintyEnergy ( double energyunc )

inline

Set energy uncertainty.

Definition at line 163 of file ECLCluster.h.

163{ m_sqrtcovmat_00 = fabs(energyunc); }

◆ setUncertaintyPhi()

void setUncertaintyPhi ( double phiunc )

inline

Set phi uncertainty.

Definition at line 169 of file ECLCluster.h.

169{ m_sqrtcovmat_11 = fabs(phiunc); }

◆ setUncertaintyTheta()

void setUncertaintyTheta ( double thetaunc )

inline

Set theta uncertainty.

Definition at line 166 of file ECLCluster.h.

166{ m_sqrtcovmat_22 = fabs(thetaunc); }

◆ setZernikeMVA()

void setZernikeMVA ( double zernikemva )

inline

Set Zernike 20.

Definition at line 187 of file ECLCluster.h.

187{ m_zernikeMVA = zernikemva; }

Member Data Documentation

◆ m_absZernike40

Double32_t m_absZernike40

private

Zernike 40.

Definition at line 422 of file ECLCluster.h.

◆ m_absZernike51

Double32_t m_absZernike51

private

Zernike 51.

Definition at line 425 of file ECLCluster.h.

◆ m_cacheArrayIndex

int m_cacheArrayIndex

mutableprivateinherited

Cache of the index in the TClonesArray to which this object belongs.

Definition at line 432 of file RelationsObject.h.

◆ m_cacheDataStoreEntry

DataStore::StoreEntry* m_cacheDataStoreEntry

mutableprivateinherited

Cache of the data store entry to which this object belongs.

Definition at line 429 of file RelationsObject.h.

◆ m_ClusterHadronIntensity

Double32_t m_ClusterHadronIntensity

private

Cluster Hadron Component Intensity (pulse shape discrimination variable).

Sum of the CsI(Tl) hadron scintillation component emission normalized to the sum of CsI(Tl) total scintillation emission. Computed only using cluster digits with energy greater than 50 MeV and good offline waveform fit chi2. Will be removed in release-04

Definition at line 473 of file ECLCluster.h.

◆ m_clusterId

int m_clusterId

private

Cluster id.

Definition at line 387 of file ECLCluster.h.

◆ m_connectedRegionId

int m_connectedRegionId

private

Connected Region of this cluster.

Definition at line 384 of file ECLCluster.h.

◆ m_covmat_10

Double32_t m_covmat_10

private

Covariance matrix 10, not used yet.

Definition at line 398 of file ECLCluster.h.

◆ m_covmat_20

Double32_t m_covmat_20

private

Covariance matrix 20, not used yet.

Definition at line 404 of file ECLCluster.h.

◆ m_covmat_21

Double32_t m_covmat_21

private

Covariance matrix 21, not used yet.

Definition at line 407 of file ECLCluster.h.

◆ m_deltaL

Double32_t m_deltaL

private

Delta L as defined in arXiv:0711.1593.

Definition at line 413 of file ECLCluster.h.

◆ m_deltaTime99

Double32_t m_deltaTime99

private

Delta Time 99.

Definition at line 449 of file ECLCluster.h.

◆ m_E1oE9

Double32_t m_E1oE9

private

E1oE9.

Definition at line 431 of file ECLCluster.h.

◆ m_E9oE21

Double32_t m_E9oE21

private

E9oE21.

Definition at line 434 of file ECLCluster.h.

◆ m_hypotheses

unsigned short m_hypotheses

private

Hypothesis.

Definition at line 378 of file ECLCluster.h.

◆ m_isTrack

bool m_isTrack

private

Is related to track (true) or not (false).

Definition at line 372 of file ECLCluster.h.

◆ m_LAT

Double32_t m_LAT

private

LAT.

Definition at line 440 of file ECLCluster.h.

◆ m_logEnergy

Double32_t m_logEnergy

private

< Log.

Energy [GeV].

Definition at line 461 of file ECLCluster.h.

◆ m_logEnergyHighestCrystal

Double32_t m_logEnergyHighestCrystal

private

Log.

Highest Crystal Energy [GeV].

Definition at line 467 of file ECLCluster.h.

◆ m_logEnergyRaw

Double32_t m_logEnergyRaw

private

Log.

Raw Energy [GeV].

Definition at line 464 of file ECLCluster.h.

◆ m_maxECellId

unsigned short m_maxECellId

private

CellID of maximum energy crystal.

Definition at line 381 of file ECLCluster.h.

◆ m_minTrkDistance

Double32_t m_minTrkDistance

private

Distance between cluster center and track extrapolation to ECL.

Definition at line 416 of file ECLCluster.h.

◆ m_minTrkDistanceID

unsigned short m_minTrkDistanceID

private

Array index of the nearest track.

Definition at line 419 of file ECLCluster.h.

◆ m_numberOfCrystals

Double32_t m_numberOfCrystals

private

Number of Crystals in a shower (sum of weights).

Definition at line 443 of file ECLCluster.h.

◆ m_NumberOfHadronDigits

Double32_t m_NumberOfHadronDigits

private

Number of hadron digits in cluster (pulse shape discrimination variable).

Weighted sum of digits in cluster with significant scintillation emission (> 3 MeV) in the hadronic scintillation component.

Definition at line 476 of file ECLCluster.h.

◆ m_phi

Double32_t m_phi

private

Phi [rad].

Definition at line 455 of file ECLCluster.h.

◆ m_PulseShapeDiscriminationMVA

Double32_t m_PulseShapeDiscriminationMVA

private

MVA classifier that uses pulse shape discrimination to identify electromagnetic vs hadronic showers.

Classifier value is 1.0 EM showers and 0.0 for hadronic showers.

Definition at line 470 of file ECLCluster.h.

◆ m_r

Double32_t m_r

private

Radius [cm].

Definition at line 458 of file ECLCluster.h.

◆ m_secondMoment

Double32_t m_secondMoment

private

Second Moment.

Definition at line 437 of file ECLCluster.h.

◆ m_sqrtcovmat_00

Double32_t m_sqrtcovmat_00

private

Covariance entry 00 sigma_E (1% to 25% between 10 MeV and 8 GeV)

Definition at line 395 of file ECLCluster.h.

◆ m_sqrtcovmat_11

Double32_t m_sqrtcovmat_11

private

Covariance matrix 11, sigma_phi, between 0 and 50 mrad.

Definition at line 401 of file ECLCluster.h.

◆ m_sqrtcovmat_22

Double32_t m_sqrtcovmat_22

private

Covariance matrix 22, sigma_theta, between 0 and 50 mrad.

Definition at line 410 of file ECLCluster.h.

◆ m_status

unsigned short m_status

private

Cluster status.

Definition at line 375 of file ECLCluster.h.

◆ m_theta

Double32_t m_theta

private

Theta [rad].

Definition at line 452 of file ECLCluster.h.

◆ m_time

Double32_t m_time

private

Time.

Definition at line 446 of file ECLCluster.h.

◆ m_zernikeMVA

Double32_t m_zernikeMVA

private

Zernike MVA.

Definition at line 428 of file ECLCluster.h.

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

mdst/dataobjects/include/ECLCluster.h
mdst/dataobjects/src/ECLCluster.cc

Public Types

Public Member Functions

Protected Member Functions

Private Member Functions

Private Attributes

Detailed Description

Member Enumeration Documentation

◆ EHypothesisBit

◆ EStatusBit

Constructor & Destructor Documentation

◆ ECLCluster()

Member Function Documentation

◆ addHypothesis()

◆ addRelationTo() [1/2]

◆ addRelationTo() [2/2]

◆ addStatus()

◆ copyRelations()

◆ getAbsZernike40()

◆ getAbsZernike51()

◆ getArrayIndex()

◆ getArrayName()

◆ getArrayPointer()

◆ getClusterId()

◆ getClusterPosition()

◆ getConnectedRegionId()

◆ getCovarianceMatrix3x3()

◆ getDeltaL()

◆ getDeltaTime99()

◆ getDetectorRegion()

◆ getE1oE9()

◆ getE9oE21()

◆ getEnergy()

◆ getEnergyHighestCrystal()

◆ getEnergyRaw()

◆ getHypotheses()

◆ getInfo()

◆ getInfoHTML()

◆ getLAT()

◆ getMaxECellId()

◆ getMinTrkDistance()

◆ getMinTrkDistanceID()

◆ getName()

◆ getNumberOfCrystals()

◆ getNumberOfHadronDigits()

◆ getPhi()

◆ getPulseShapeDiscriminationMVA()

◆ getR()

◆ getRelated()

◆ getRelatedFrom()

◆ getRelatedFromWithWeight()

◆ getRelatedTo()

◆ getRelatedToWithWeight()

◆ getRelatedWithWeight()

◆ getRelationsFrom()

◆ getRelationsTo()

◆ getRelationsWith()

◆ getSecondMoment()

◆ getStatus()

◆ getTheta()

◆ getTime()

◆ getUncertaintyEnergy()

◆ getUncertaintyPhi()

◆ getUncertaintyTheta()

◆ getUniqueClusterId()

◆ getZernikeMVA()

◆ hasFailedFitTime()

◆ hasFailedTimeResolution()

◆ hasHypothesis()

◆ hasPulseShapeDiscrimination()

◆ hasStatus()

◆ hasTriggerClusterMatching()

◆ isNeutral()

◆ isTrack()

◆ isTriggerCluster()

◆ removeHypothesis()

◆ removeStatus()

◆ setAbsZernike40()

◆ setAbsZernike51()

◆ setClusterId()

◆ setConnectedRegionId()