This class collects some information of a TrueHit, using SVDCLuster and MCParticle information too. More...

#include <hitXP.h>

Inheritance diagram for hitXP:

Classes
struct	timeCompare
	This structure allows to compare times of 2 hitXP point input (first hit, second hit) output (boolean: true if time of the hit1< time of hit2) More...

Public Member Functions
	hitXP ()
	empty constructor of the class

ROOT::Math::XYZVector	getPositionMid () const
	get the relative member

ROOT::Math::XYZVector	getPositionEntry () const
	get the relative member

ROOT::Math::XYZVector	getPositionExit () const
	get the relative member

ROOT::Math::XYZVector	getMomentumMid () const
	get the relative member

ROOT::Math::XYZVector	getMomentumEntry () const
	get the relative member

ROOT::Math::XYZVector	getMomentumExit () const
	get the relative member

ROOT::Math::XYZVector	getPositionLocalMid () const
	get the relative member

ROOT::Math::XYZVector	getPositionLocalEntry () const
	get the relative member

ROOT::Math::XYZVector	getPositionLocalExit () const
	get the relative member

ROOT::Math::XYZVector	getMomentumLocalMid () const
	get the relative member

ROOT::Math::XYZVector	getMomentumLocalEntry () const
	get the relative member

ROOT::Math::XYZVector	getMomentumLocalExit () const
	get the relative member

int	getPDGID () const
	get the relative member

ROOT::Math::XYZVector	getPosition0 () const
	get the relative member

ROOT::Math::XYZVector	getMomentum0 () const
	get the relative member

double	getTime () const
	get the relative member

int	getSensorSensor () const
	get the relative member

int	getSensorLadder () const
	get the relative member

int	getSensorLayer () const
	get the relative member

int	getClusterU () const
	get the relative member

int	getClusterV () const
	get the relative member

bool	isReconstructed () const
	get the relative member

double	getCharge () const
	get the relative member

void	setPositionMid (ROOT::Math::XYZVector position)
	get the relative member

void	setPositionEntry (ROOT::Math::XYZVector position)
	get the relative member

void	setPositionExit (ROOT::Math::XYZVector position)
	get the relative member

void	setMomentumMid (ROOT::Math::XYZVector momentum)
	get the relative member

void	setMomentumEntry (ROOT::Math::XYZVector momentum)
	get the relative member

void	setMomentumExit (ROOT::Math::XYZVector momentum)
	get the relative member

void	setPositionLocalMid (ROOT::Math::XYZVector position)
	get the relative member

void	setPositionLocalEntry (ROOT::Math::XYZVector position)
	get the relative member

void	setPositionLocalExit (ROOT::Math::XYZVector position)
	get the relative member

void	setMomentumLocalMid (ROOT::Math::XYZVector momentum)
	get the relative member

void	setMomentumLocalEntry (ROOT::Math::XYZVector momentum)
	get the relative member

void	setMomentumLocalExit (ROOT::Math::XYZVector momentum)
	get the relative member

void	setPDGID (int pdgid)
	get the relative member

void	setPosition0 (ROOT::Math::XYZVector position)
	get the relative member

void	setMomentum0 (ROOT::Math::XYZVector momentum)
	get the relative member

void	setTime (double Time)
	get the relative member

void	setSensorSensor (int sensor)
	get the relative member

void	setSensorLayer (int layer)
	get the relative member

void	setSensorLadder (int ladder)
	get the relative member

void	setClusterU (int cluster)
	get the relative member

void	setClusterV (int cluster)
	get the relative member

void	setReconstructed (bool isReconstructed)
	get the relative member

void	setCharge (double charge)
	get the relative member

double	omega (ROOT::Math::XYZVector xx, ROOT::Math::XYZVector p, double charge) const
	evaluates the parameter omega (1/curvature radius) of a helicoidal track starting from position and momentum of the hit input(hit position, hit momentum, hit charge) output(omega value)

double	tanLambda (ROOT::Math::XYZVector xx, ROOT::Math::XYZVector p) const
	evaluates the parameter tanLambda (pz/pt) of a helicoidal track starting from position and momentum of the hit input(hit position, hit momentum) output(tanlambda value)

double	d0 (ROOT::Math::XYZVector xx, ROOT::Math::XYZVector p, double charge) const
	evaluates the parameter d0 (impact parameter) of a helicoidal track starting from position and momentum of the hit input(hit position, hit momentum, hit charge) output(d0 value)

double	phi0 (const ROOT::Math::XYZVector &xx, ROOT::Math::XYZVector p, double charge) const
	evaluates the parameter phi0 (angle between pT and x) of a helicoidal track starting from position and momentum of the hit input(hit position, hit momentum, hit charge) output(phi0 value)

double	z0 (ROOT::Math::XYZVector xx, ROOT::Math::XYZVector p, double charge) const
	evaluates the parameter z0 (distance transverse plane-POCA) of a helicoidal track starting from position and momentum of the hit input(hit position, hit momentum, hit charge) output(z0 value)

double	getOmegaMid () const
	evaluate relative parameter using midpoint position and momentum

double	getOmegaEntry () const
	evaluate relative parameter using entrypoint position and momentum

double	getOmegaExit () const
	evaluate relative parameter using exitpoint position and momentum

double	getOmega0 () const
	evaluate relative parameter using IP position and momentum

double	getTanLambdaMid () const
	evaluate relative parameter using midpoint position and momentum

double	getTanLambdaEntry () const
	evaluate relative parameter using entrypoint position and momentum

double	getTanLambdaExit () const
	evaluate relative parameter using exitpoint position and momentum

double	getTanLambda0 () const
	evaluate relative parameter using IP position and momentum

double	getD0Mid () const
	evaluate relative parameter using midpoint position and momentum

double	getD0Entry () const
	evaluate relative parameter using entrypoint position and momentum

double	getD0Exit () const
	evaluate relative parameter using exitpoint position and momentum

double	getD00 () const
	evaluate relative parameter using IP position and momentum

double	getPhi0Mid () const
	evaluate relative parameter using midpoint position and momentum

double	getPhi0Entry () const
	evaluate relative parameter using entrypoint position and momentum

double	getPhi0Exit () const
	evaluate relative parameter using exitpoint position and momentum

double	getPhi00 () const
	evaluate relative parameter using IP position and momentum

double	getZ0Mid () const
	evaluate relative parameter using midpoint position and momentum

double	getZ0Entry () const
	evaluate relative parameter using entrypoint position and momentum

double	getZ0Exit () const
	evaluate relative parameter using exitpoint position and momentum

double	getZ00 () const
	evaluate relative parameter using IP position and momentum

	ClassDef (hitXP, 3)
	needed by root

Public Attributes
ROOT::Math::XYZVector	m_positionMid
	poition of hit at midpoint of layer

ROOT::Math::XYZVector	m_positionEntry
	poition of hit at entrypoint of layer

ROOT::Math::XYZVector	m_positionExit
	poition of hit at exitpoint of layer

ROOT::Math::XYZVector	m_momentumMid
	momentum of hit at midpoint of layer

ROOT::Math::XYZVector	m_momentumEntry
	momentum of hit at entry of layer

ROOT::Math::XYZVector	m_momentumExit
	momentum of hit at exit of layer

ROOT::Math::XYZVector	m_positionLocalMid
	poition of hit at midpoint of layer, local coordinate

ROOT::Math::XYZVector	m_positionLocalEntry
	poition of hit at entrypoint of layer, local coordinate

ROOT::Math::XYZVector	m_positionLocalExit
	poition of hit at exitpoint of layer, local coordinate

ROOT::Math::XYZVector	m_momentumLocalMid
	momentum of hit at midpoint of layer, local coordinate

ROOT::Math::XYZVector	m_momentumLocalEntry
	momentum of hit at entrypoint of layer, local coordinate

ROOT::Math::XYZVector	m_momentumLocalExit
	momentum of hit at exitpoint of layer, local coordinate

ROOT::Math::XYZVector	m_momentum0
	momentum at IP

ROOT::Math::XYZVector	m_position0
	position at IP

double	m_time = 0
	time of the hit

double	m_info_d0 = 0
	d0 from MCParticle info evaluation.

double	m_info_z0 = 0
	z0 from MCParticle info evaluation.

double	m_info_phi0 = 0
	phi0 from MCParticle info evaluation.

double	m_info_tanlambda = 0
	tanlambda from MCParticle info evaluation.

double	m_info_omega = 0
	omega from MCParticle info evaluation.

double	m_charge = 0
	charge of the track

int	m_PDGID = 0
	PDGID.

int	m_sensorSensor = 0
	sensor of the hit

int	m_sensorLayer = 0
	layer of the hit

int	m_sensorLadder = 0
	ladder of the hit

int	m_clusterU = 0
	flag for u cluster

int	m_clusterV = 0
	flag for v cluster

bool	m_reconstructed = 0
	flag for reconstructed track

Detailed Description

This class collects some information of a TrueHit, using SVDCLuster and MCParticle information too.

This information is: position in local and global coordinates at entry/middle/exit position of the sensor, momentum, analytical track parameters (evaluated from position and momentum), geometrical information (layer,ladder,sensor) and time.

The purpose of this class is to obtain a single "hit-like object" with all the useful information for a track-parameters study. It is used in evaluate the NoKickCuts.

To build a hitXP object is necessary to use the constructor of the derivate class hitXPDerivate.

Definition at line 32 of file hitXP.h.

Constructor & Destructor Documentation

◆ hitXP()

hitXP ( )

inline

empty constructor of the class

Definition at line 65 of file hitXP.h.

65{}

Member Function Documentation

◆ d0()

double d0	(	ROOT::Math::XYZVector	xx,
		ROOT::Math::XYZVector	p,
		double	charge ) const

evaluates the parameter d0 (impact parameter) of a helicoidal track starting from position and momentum of the hit input(hit position, hit momentum, hit charge) output(d0 value)

Definition at line 32 of file hitXP.cc.

{
  ROOT::Math::XYZVector x(0.01 * xx.X(), 0.01 * xx.Y(), 0.01 * xx.Z());
  double Bz = 1.5;
  double Bze = Bz * charge * Const::speedOfLight / 100.;
  double aux = sqrt((p.Y() / (Bze) + x.X()) * (p.Y() / (Bze) + x.X()) + (x.Y() - p.X() / (Bze)) * (x.Y() - p.X() / (Bze))) - sqrt((
                 p.X() * p.X() + p.Y() * p.Y()) / (Bze * Bze));
  if (Bze < 0) {
    aux = -aux;
  }
  aux = 100 * aux;
  return aux;
}

◆ getCharge()

double getCharge ( ) const

inline

get the relative member

Definition at line 134 of file hitXP.h.

134{ return m_charge; }

◆ getClusterU()

int getClusterU ( ) const

inline

get the relative member

Definition at line 125 of file hitXP.h.

125{ return m_clusterU; }

◆ getClusterV()

int getClusterV ( ) const

inline

get the relative member

Definition at line 128 of file hitXP.h.

128{ return m_clusterV; }

◆ getD00()

double getD00 ( ) const

inline

evaluate relative parameter using IP position and momentum

Definition at line 355 of file hitXP.h.

355{ return d0(m_position0, m_momentum0, m_charge); }

◆ getD0Entry()

double getD0Entry ( ) const

inline

evaluate relative parameter using entrypoint position and momentum

Definition at line 349 of file hitXP.h.

349{ return d0(m_positionEntry, m_momentumEntry, m_charge); }

◆ getD0Exit()

double getD0Exit ( ) const

inline

evaluate relative parameter using exitpoint position and momentum

Definition at line 352 of file hitXP.h.

352{ return d0(m_positionExit, m_momentumExit, m_charge); }

◆ getD0Mid()

double getD0Mid ( ) const

inline

evaluate relative parameter using midpoint position and momentum

Definition at line 346 of file hitXP.h.

346{ return d0(m_positionMid, m_momentumMid, m_charge); }

◆ getMomentum0()

ROOT::Math::XYZVector getMomentum0 ( ) const

inline

get the relative member

Definition at line 110 of file hitXP.h.

110{ return m_momentum0; }

◆ getMomentumEntry()

ROOT::Math::XYZVector getMomentumEntry ( ) const

inline

get the relative member

Definition at line 80 of file hitXP.h.

80{ return m_momentumEntry; }

◆ getMomentumExit()

ROOT::Math::XYZVector getMomentumExit ( ) const

inline

get the relative member

Definition at line 83 of file hitXP.h.

83{ return m_momentumExit; }

◆ getMomentumLocalEntry()

ROOT::Math::XYZVector getMomentumLocalEntry ( ) const

inline

get the relative member

Definition at line 98 of file hitXP.h.

98{ return m_momentumLocalEntry; }

◆ getMomentumLocalExit()

ROOT::Math::XYZVector getMomentumLocalExit ( ) const

inline

get the relative member

Definition at line 101 of file hitXP.h.

101{ return m_momentumLocalExit; }

◆ getMomentumLocalMid()

ROOT::Math::XYZVector getMomentumLocalMid ( ) const

inline

get the relative member

Definition at line 95 of file hitXP.h.

95{ return m_momentumLocalMid; }

◆ getMomentumMid()

ROOT::Math::XYZVector getMomentumMid ( ) const

inline

get the relative member

Definition at line 77 of file hitXP.h.

77{ return m_momentumMid; }

◆ getOmega0()

double getOmega0 ( ) const

inline

evaluate relative parameter using IP position and momentum

Definition at line 331 of file hitXP.h.

331{ return omega(m_position0, m_momentum0, m_charge); }

◆ getOmegaEntry()

double getOmegaEntry ( ) const

inline

evaluate relative parameter using entrypoint position and momentum

Definition at line 325 of file hitXP.h.

325{ return omega(m_positionEntry, m_momentumEntry, m_charge); }

◆ getOmegaExit()

double getOmegaExit ( ) const

inline

evaluate relative parameter using exitpoint position and momentum

Definition at line 328 of file hitXP.h.

328{ return omega(m_positionExit, m_momentumExit, m_charge); }

◆ getOmegaMid()

double getOmegaMid ( ) const

inline

evaluate relative parameter using midpoint position and momentum

Definition at line 322 of file hitXP.h.

322{ return omega(m_positionMid, m_momentumMid, m_charge); }

◆ getPDGID()

int getPDGID ( ) const

inline

get the relative member

Definition at line 104 of file hitXP.h.

104{ return m_PDGID; }

◆ getPhi00()

double getPhi00 ( ) const

inline

evaluate relative parameter using IP position and momentum

Definition at line 367 of file hitXP.h.

367{ return phi0(m_position0, m_momentum0, m_charge); }

◆ getPhi0Entry()

double getPhi0Entry ( ) const

inline

evaluate relative parameter using entrypoint position and momentum

Definition at line 361 of file hitXP.h.

361{ return phi0(m_positionEntry, m_momentumEntry, m_charge); }

◆ getPhi0Exit()

double getPhi0Exit ( ) const

inline

evaluate relative parameter using exitpoint position and momentum

Definition at line 364 of file hitXP.h.

364{ return phi0(m_positionExit, m_momentumExit, m_charge); }

◆ getPhi0Mid()

double getPhi0Mid ( ) const

inline

evaluate relative parameter using midpoint position and momentum

Definition at line 358 of file hitXP.h.

358{ return phi0(m_positionMid, m_momentumMid, m_charge); }

◆ getPosition0()

ROOT::Math::XYZVector getPosition0 ( ) const

inline

get the relative member

Definition at line 107 of file hitXP.h.

107{ return m_position0; }

◆ getPositionEntry()

ROOT::Math::XYZVector getPositionEntry ( ) const

inline

get the relative member

Definition at line 71 of file hitXP.h.

71{ return m_positionEntry; }

◆ getPositionExit()

ROOT::Math::XYZVector getPositionExit ( ) const

inline

get the relative member

Definition at line 74 of file hitXP.h.

74{ return m_positionExit; }

◆ getPositionLocalEntry()

ROOT::Math::XYZVector getPositionLocalEntry ( ) const

inline

get the relative member

Definition at line 89 of file hitXP.h.

89{ return m_positionLocalEntry; }

◆ getPositionLocalExit()

ROOT::Math::XYZVector getPositionLocalExit ( ) const

inline

get the relative member

Definition at line 92 of file hitXP.h.

92{ return m_positionLocalExit; }

◆ getPositionLocalMid()

ROOT::Math::XYZVector getPositionLocalMid ( ) const

inline

get the relative member

Definition at line 86 of file hitXP.h.

86{ return m_positionLocalMid; }

◆ getPositionMid()

ROOT::Math::XYZVector getPositionMid ( ) const

inline

get the relative member

Definition at line 68 of file hitXP.h.

68{ return m_positionMid; }

◆ getSensorLadder()

int getSensorLadder ( ) const

inline

get the relative member

Definition at line 119 of file hitXP.h.

119{ return m_sensorLadder; }

◆ getSensorLayer()

int getSensorLayer ( ) const

inline

get the relative member

Definition at line 122 of file hitXP.h.

122{ return m_sensorLayer; }

◆ getSensorSensor()

int getSensorSensor ( ) const

inline

get the relative member

Definition at line 116 of file hitXP.h.

116{ return m_sensorSensor; }

◆ getTanLambda0()

double getTanLambda0 ( ) const

inline

evaluate relative parameter using IP position and momentum

Definition at line 343 of file hitXP.h.

343{ return tanLambda(m_position0, m_momentum0); }

◆ getTanLambdaEntry()

double getTanLambdaEntry ( ) const

inline

evaluate relative parameter using entrypoint position and momentum

Definition at line 337 of file hitXP.h.

337{ return tanLambda(m_positionEntry, m_momentumEntry); }

◆ getTanLambdaExit()

double getTanLambdaExit ( ) const

inline

evaluate relative parameter using exitpoint position and momentum

Definition at line 340 of file hitXP.h.

340{ return tanLambda(m_positionExit, m_momentumExit); }

◆ getTanLambdaMid()

double getTanLambdaMid ( ) const

inline

evaluate relative parameter using midpoint position and momentum

Definition at line 334 of file hitXP.h.

334{ return tanLambda(m_positionMid, m_momentumMid); }

◆ getTime()

double getTime ( ) const

inline

get the relative member

Definition at line 113 of file hitXP.h.

113{ return m_time; }

◆ getZ00()

double getZ00 ( ) const

inline

evaluate relative parameter using IP position and momentum

Definition at line 379 of file hitXP.h.

379{ return z0(m_position0, m_momentum0, m_charge); }

◆ getZ0Entry()

double getZ0Entry ( ) const

inline

evaluate relative parameter using entrypoint position and momentum

Definition at line 373 of file hitXP.h.

373{ return z0(m_positionEntry, m_momentumEntry, m_charge); }

◆ getZ0Exit()

double getZ0Exit ( ) const

inline

evaluate relative parameter using exitpoint position and momentum

Definition at line 376 of file hitXP.h.

376{ return z0(m_positionExit, m_momentumExit, m_charge); }

◆ getZ0Mid()

double getZ0Mid ( ) const

inline

evaluate relative parameter using midpoint position and momentum

Definition at line 370 of file hitXP.h.

370{ return z0(m_positionMid, m_momentumMid, m_charge); }

◆ isReconstructed()

bool isReconstructed ( ) const

inline

get the relative member

Definition at line 131 of file hitXP.h.

131{ return m_reconstructed; }

◆ omega()

double omega	(	ROOT::Math::XYZVector	xx,
		ROOT::Math::XYZVector	p,
		double	charge ) const

evaluates the parameter omega (1/curvature radius) of a helicoidal track starting from position and momentum of the hit input(hit position, hit momentum, hit charge) output(omega value)

Definition at line 13 of file hitXP.cc.

{
  ROOT::Math::XYZVector x(0.01 * xx.X(), 0.01 * xx.Y(), 0.01 * xx.Z());
  double Bz = 1.5;
  double Bze = Bz * charge * Const::speedOfLight / 100.;
  double aux = Bze / sqrt(p.X() * p.X() + p.Y() * p.Y());
  aux = aux / 100;
  return aux;
}

◆ phi0()

double phi0	(	const ROOT::Math::XYZVector &	xx,
		ROOT::Math::XYZVector	p,
		double	charge ) const

evaluates the parameter phi0 (angle between pT and x) of a helicoidal track starting from position and momentum of the hit input(hit position, hit momentum, hit charge) output(phi0 value)

Definition at line 46 of file hitXP.cc.

{
  ROOT::Math::XYZVector x(0.01 * xx.X(), 0.01 * xx.Y(), 0.01 * xx.Z());
  double Bz = 1.5;
  double Bze = Bz * charge * Const::speedOfLight / 100.;
  double aux;
  double chi;
  if (Bze > 0) {
    chi = atan2((-p.X() * x.X() - p.Y() * x.Y()), ((p.X() * p.X() + p.Y() * p.Y()) / (Bze) + p.Y() * x.X() - p.X() * x.Y()));
  } else {
    chi = atan2(-(-p.X() * x.X() - p.Y() * x.Y()), -((p.X() * p.X() + p.Y() * p.Y()) / (Bze) + p.Y() * x.X() - p.X() * x.Y()));
  }
  aux = atan2(p.Y(), p.X()) - chi;
  return aux;
}

◆ setCharge()

void setCharge ( double charge )

inline

get the relative member

Definition at line 279 of file hitXP.h.

279{ m_charge = charge; }

◆ setClusterU()

void setClusterU ( int cluster )

inline

get the relative member

Definition at line 264 of file hitXP.h.

    {
      m_clusterU = cluster;
    }

◆ setClusterV()

void setClusterV ( int cluster )

inline

get the relative member

Definition at line 270 of file hitXP.h.

    {
      m_clusterV = cluster;
    }

◆ setMomentum0()

void setMomentum0 ( ROOT::Math::XYZVector momentum )

inline

get the relative member

Definition at line 244 of file hitXP.h.

    {
      m_momentum0.SetX(momentum.X());
      m_momentum0.SetY(momentum.Y());
      m_momentum0.SetZ(momentum.Z());
    }

◆ setMomentumEntry()

void setMomentumEntry ( ROOT::Math::XYZVector momentum )

inline

get the relative member

Definition at line 169 of file hitXP.h.

    {
      m_momentumEntry.SetX(momentum.X());
      m_momentumEntry.SetY(momentum.Y());
      m_momentumEntry.SetZ(momentum.Z());
    }

◆ setMomentumExit()

void setMomentumExit ( ROOT::Math::XYZVector momentum )

inline

get the relative member

Definition at line 177 of file hitXP.h.

    {
      m_momentumExit.SetX(momentum.X());
      m_momentumExit.SetY(momentum.Y());
      m_momentumExit.SetZ(momentum.Z());
    }

◆ setMomentumLocalEntry()

void setMomentumLocalEntry ( ROOT::Math::XYZVector momentum )

inline

get the relative member

Definition at line 217 of file hitXP.h.

    {
      m_momentumLocalEntry.SetX(momentum.X());
      m_momentumLocalEntry.SetY(momentum.Y());
      m_momentumLocalEntry.SetZ(momentum.Z());
    }

◆ setMomentumLocalExit()

void setMomentumLocalExit ( ROOT::Math::XYZVector momentum )

inline

get the relative member

Definition at line 225 of file hitXP.h.

    {
      m_momentumLocalExit.SetX(momentum.X());
      m_momentumLocalExit.SetY(momentum.Y());
      m_momentumLocalExit.SetZ(momentum.Z());
    }

◆ setMomentumLocalMid()

void setMomentumLocalMid ( ROOT::Math::XYZVector momentum )

inline

get the relative member

Definition at line 209 of file hitXP.h.

    {
      m_momentumLocalMid.SetX(momentum.X());
      m_momentumLocalMid.SetY(momentum.Y());
      m_momentumLocalMid.SetZ(momentum.Z());
    }

◆ setMomentumMid()

void setMomentumMid ( ROOT::Math::XYZVector momentum )

inline

get the relative member

Definition at line 161 of file hitXP.h.

    {
      m_momentumMid.SetX(momentum.X());
      m_momentumMid.SetY(momentum.Y());
      m_momentumMid.SetZ(momentum.Z());
    }

◆ setPDGID()

void setPDGID ( int pdgid )

inline

get the relative member

Definition at line 233 of file hitXP.h.

233{ m_PDGID = pdgid; }

◆ setPosition0()

void setPosition0 ( ROOT::Math::XYZVector position )

inline

get the relative member

Definition at line 236 of file hitXP.h.

    {
      m_position0.SetX(position.X());
      m_position0.SetY(position.Y());
      m_position0.SetZ(position.Z());
    }

◆ setPositionEntry()

void setPositionEntry ( ROOT::Math::XYZVector position )

inline

get the relative member

Definition at line 145 of file hitXP.h.

    {
      m_positionEntry.SetX(position.X());
      m_positionEntry.SetY(position.Y());
      m_positionEntry.SetZ(position.Z());
    }

◆ setPositionExit()

void setPositionExit ( ROOT::Math::XYZVector position )

inline

get the relative member

Definition at line 153 of file hitXP.h.

    {
      m_positionExit.SetX(position.X());
      m_positionExit.SetY(position.Y());
      m_positionExit.SetZ(position.Z());
    }

◆ setPositionLocalEntry()

void setPositionLocalEntry ( ROOT::Math::XYZVector position )

inline

get the relative member

Definition at line 193 of file hitXP.h.

    {
      m_positionLocalEntry.SetX(position.X());
      m_positionLocalEntry.SetY(position.Y());
      m_positionLocalEntry.SetZ(position.Z());
    }

◆ setPositionLocalExit()

void setPositionLocalExit ( ROOT::Math::XYZVector position )

inline

get the relative member

Definition at line 201 of file hitXP.h.

    {
      m_positionLocalExit.SetX(position.X());
      m_positionLocalExit.SetY(position.Y());
      m_positionLocalExit.SetZ(position.Z());
    }

◆ setPositionLocalMid()

void setPositionLocalMid ( ROOT::Math::XYZVector position )

inline

get the relative member

Definition at line 185 of file hitXP.h.

    {
      m_positionLocalMid.SetX(position.X());
      m_positionLocalMid.SetY(position.Y());
      m_positionLocalMid.SetZ(position.Z());
    }

◆ setPositionMid()

void setPositionMid ( ROOT::Math::XYZVector position )

inline

get the relative member

Definition at line 137 of file hitXP.h.

    {
      m_positionMid.SetX(position.X());
      m_positionMid.SetY(position.Y());
      m_positionMid.SetZ(position.Z());
    }

◆ setReconstructed()

void setReconstructed ( bool isReconstructed )

inline

get the relative member

Definition at line 276 of file hitXP.h.

276{ m_reconstructed = isReconstructed; }

◆ setSensorLadder()

void setSensorLadder ( int ladder )

inline

get the relative member

Definition at line 261 of file hitXP.h.

261{ m_sensorLadder = ladder; }

◆ setSensorLayer()

void setSensorLayer ( int layer )

inline

get the relative member

Definition at line 258 of file hitXP.h.

258{ m_sensorLayer = layer; }

◆ setSensorSensor()

void setSensorSensor ( int sensor )

inline

get the relative member

Definition at line 255 of file hitXP.h.

255{ m_sensorSensor = sensor; }

◆ setTime()

void setTime ( double Time )

inline

get the relative member

Definition at line 252 of file hitXP.h.

252{ m_time = Time; }

◆ tanLambda()

double tanLambda	(	ROOT::Math::XYZVector	xx,
		ROOT::Math::XYZVector	p ) const

evaluates the parameter tanLambda (pz/pt) of a helicoidal track starting from position and momentum of the hit input(hit position, hit momentum) output(tanlambda value)

Definition at line 24 of file hitXP.cc.

{
  ROOT::Math::XYZVector x(0.01 * xx.X(), 0.01 * xx.Y(), 0.01 * xx.Z());
  double aux = p.Z() / sqrt(p.X() * p.X() + p.Y() * p.Y());
  return aux;
}

◆ z0()

double z0	(	ROOT::Math::XYZVector	xx,
		ROOT::Math::XYZVector	p,
		double	charge ) const

evaluates the parameter z0 (distance transverse plane-POCA) of a helicoidal track starting from position and momentum of the hit input(hit position, hit momentum, hit charge) output(z0 value)

Definition at line 62 of file hitXP.cc.

{
  ROOT::Math::XYZVector x(0.01 * xx.X(), 0.01 * xx.Y(), 0.01 * xx.Z());
  double Bz = 1.5;
  double Bze = Bz * charge * Const::speedOfLight / 100.;
  double aux;
  double chi;
  if (Bze > 0) {
    chi = atan2((-p.X() * x.X() - p.Y() * x.Y()), ((p.X() * p.X() + p.Y() * p.Y()) / (Bze) + p.Y() * x.X() - p.X() * x.Y()));
  } else {
    chi = atan2(-(-p.X() * x.X() - p.Y() * x.Y()), -((p.X() * p.X() + p.Y() * p.Y()) / (Bze) + p.Y() * x.X() - p.X() * x.Y()));
  }
  aux = p.Z() * chi / (Bze) + x.Z();
  aux = 100 * aux;
  return aux;
}

Member Data Documentation

◆ m_charge

double m_charge = 0

charge of the track

Definition at line 55 of file hitXP.h.

◆ m_clusterU

int m_clusterU = 0

flag for u cluster

Definition at line 60 of file hitXP.h.

◆ m_clusterV

int m_clusterV = 0

flag for v cluster

Definition at line 61 of file hitXP.h.

◆ m_info_d0

double m_info_d0 = 0

d0 from MCParticle info evaluation.

DO NOT USE, use the get

Definition at line 50 of file hitXP.h.

◆ m_info_omega

double m_info_omega = 0

omega from MCParticle info evaluation.

DO NOT USE, use the get

Definition at line 54 of file hitXP.h.

◆ m_info_phi0

double m_info_phi0 = 0

phi0 from MCParticle info evaluation.

DO NOT USE, use the get

Definition at line 52 of file hitXP.h.

◆ m_info_tanlambda

double m_info_tanlambda = 0

tanlambda from MCParticle info evaluation.

DO NOT USE, use the get

Definition at line 53 of file hitXP.h.

◆ m_info_z0

double m_info_z0 = 0

z0 from MCParticle info evaluation.

DO NOT USE, use the get

Definition at line 51 of file hitXP.h.

◆ m_momentum0

ROOT::Math::XYZVector m_momentum0

momentum at IP

Definition at line 47 of file hitXP.h.

◆ m_momentumEntry

ROOT::Math::XYZVector m_momentumEntry

momentum of hit at entry of layer

Definition at line 39 of file hitXP.h.

◆ m_momentumExit

ROOT::Math::XYZVector m_momentumExit

momentum of hit at exit of layer

Definition at line 40 of file hitXP.h.

◆ m_momentumLocalEntry

ROOT::Math::XYZVector m_momentumLocalEntry

momentum of hit at entrypoint of layer, local coordinate

Definition at line 45 of file hitXP.h.

◆ m_momentumLocalExit

ROOT::Math::XYZVector m_momentumLocalExit

momentum of hit at exitpoint of layer, local coordinate

Definition at line 46 of file hitXP.h.

◆ m_momentumLocalMid

ROOT::Math::XYZVector m_momentumLocalMid

momentum of hit at midpoint of layer, local coordinate

Definition at line 44 of file hitXP.h.

◆ m_momentumMid

ROOT::Math::XYZVector m_momentumMid

momentum of hit at midpoint of layer

Definition at line 38 of file hitXP.h.

◆ m_PDGID

int m_PDGID = 0

PDGID.

Definition at line 56 of file hitXP.h.

◆ m_position0

ROOT::Math::XYZVector m_position0

position at IP

Definition at line 48 of file hitXP.h.

◆ m_positionEntry

ROOT::Math::XYZVector m_positionEntry

poition of hit at entrypoint of layer

Definition at line 36 of file hitXP.h.

◆ m_positionExit

ROOT::Math::XYZVector m_positionExit

poition of hit at exitpoint of layer

Definition at line 37 of file hitXP.h.

◆ m_positionLocalEntry

ROOT::Math::XYZVector m_positionLocalEntry

poition of hit at entrypoint of layer, local coordinate

Definition at line 42 of file hitXP.h.

◆ m_positionLocalExit

ROOT::Math::XYZVector m_positionLocalExit

poition of hit at exitpoint of layer, local coordinate

Definition at line 43 of file hitXP.h.

◆ m_positionLocalMid

ROOT::Math::XYZVector m_positionLocalMid

poition of hit at midpoint of layer, local coordinate

Definition at line 41 of file hitXP.h.

◆ m_positionMid

ROOT::Math::XYZVector m_positionMid

poition of hit at midpoint of layer

Definition at line 35 of file hitXP.h.

◆ m_reconstructed

bool m_reconstructed = 0

flag for reconstructed track

Definition at line 62 of file hitXP.h.

◆ m_sensorLadder

int m_sensorLadder = 0

ladder of the hit

Definition at line 59 of file hitXP.h.

◆ m_sensorLayer

int m_sensorLayer = 0

layer of the hit

Definition at line 58 of file hitXP.h.

◆ m_sensorSensor

int m_sensorSensor = 0

sensor of the hit

Definition at line 57 of file hitXP.h.

◆ m_time

double m_time = 0

time of the hit

Definition at line 49 of file hitXP.h.

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

tracking/dataobjects/include/hitXP.h
tracking/dataobjects/src/hitXP.cc

Classes

Public Member Functions

Public Attributes

Detailed Description

Constructor & Destructor Documentation

◆ hitXP()

Member Function Documentation

◆ d0()

◆ getCharge()

◆ getClusterU()

◆ getClusterV()

◆ getD00()

◆ getD0Entry()

◆ getD0Exit()

◆ getD0Mid()

◆ getMomentum0()

◆ getMomentumEntry()

◆ getMomentumExit()

◆ getMomentumLocalEntry()

◆ getMomentumLocalExit()

◆ getMomentumLocalMid()

◆ getMomentumMid()

◆ getOmega0()

◆ getOmegaEntry()

◆ getOmegaExit()

◆ getOmegaMid()

◆ getPDGID()

◆ getPhi00()

◆ getPhi0Entry()

◆ getPhi0Exit()

◆ getPhi0Mid()

◆ getPosition0()

◆ getPositionEntry()

◆ getPositionExit()

◆ getPositionLocalEntry()

◆ getPositionLocalExit()

◆ getPositionLocalMid()

◆ getPositionMid()

◆ getSensorLadder()

◆ getSensorLayer()

◆ getSensorSensor()

◆ getTanLambda0()

◆ getTanLambdaEntry()

◆ getTanLambdaExit()

◆ getTanLambdaMid()

◆ getTime()

◆ getZ00()

◆ getZ0Entry()

◆ getZ0Exit()

◆ getZ0Mid()

◆ isReconstructed()

◆ omega()

◆ phi0()

◆ setCharge()

◆ setClusterU()

◆ setClusterV()

◆ setMomentum0()

◆ setMomentumEntry()

◆ setMomentumExit()

◆ setMomentumLocalEntry()

◆ setMomentumLocalExit()

◆ setMomentumLocalMid()

◆ setMomentumMid()

◆ setPDGID()

◆ setPosition0()

◆ setPositionEntry()

◆ setPositionExit()

◆ setPositionLocalEntry()

◆ setPositionLocalExit()

◆ setPositionLocalMid()

◆ setPositionMid()

◆ setReconstructed()

◆ setSensorLadder()

◆ setSensorLayer()

◆ setSensorSensor()

◆ setTime()

◆ tanLambda()

◆ z0()

Member Data Documentation

◆ m_charge