#include <SingleParticleEvent.h>

Public Member Functions
double	absmom ()

double	absVz ()

void	create (int id, double px, double py, double pz, double e, double m, double vx, double vy, double vz, double t0)

double	deltaEmin (double Energy)

double	e ()

double	e_in ()

double	Eloss (double waterEquivalents, double Energy)

double	Eug ()

bool	hitTarget ()

int	id ()

int	id_in ()

double	m ()

double	m_in ()

double	phi ()

void	propagate (double ElossScaleFac, double RadiusTarget, double Z_DistTarget, double Z_CentrTarget, bool TrackerOnly, bool MTCCHalf)

double	px ()

double	px_in ()

double	py ()

double	py_in ()

double	pz ()

double	pz_in ()

double	rVxy ()

void	setEug (double Eug)

	SingleParticleEvent ()

void	SurfProj (double Vx_in, double Vy_in, double Vz_in, double Px_in, double Py_in, double Pz_in, double &Vx_up, double &Vy_up, double &Vz_up)

double	t0 ()

double	t0_in ()

double	theta ()

double	vx ()

double	vx_in ()

double	vy ()

double	vy_in ()

double	vz ()

double	vz_in ()

double	WaterEquivalents ()

	~SingleParticleEvent ()

Public Attributes
double	ClayWidth

double	E_ug

double	PlugVx

double	PlugVz

double	RhoAir

double	RhoClay

double	RhoPlug

double	RhoRock

double	RhoWall

double	waterEquivalents

Private Member Functions
double	absVzTmp ()

double	rVxyTmp ()

void	subtractEloss (double waterEquivalents)

void	update (double stepSize)

void	updateTmp (double stepSize)

Private Attributes
double	dX

double	dY

double	dZ

double	E

double	E_in

bool	HitTarget

int	ID

int	ID_in

double	M

double	M_in

bool	MTCC

double	Px

double	Px_in

double	Py

double	Py_in

double	Pz

double	Pz_in

double	T0

double	T0_in

double	tmpVx

double	tmpVy

double	tmpVz

double	Vx

double	Vx_in

double	Vy

double	Vy_in

double	Vz

double	Vz_in

Detailed Description

Definition at line 12 of file SingleParticleEvent.h.

Constructor & Destructor Documentation

◆ SingleParticleEvent()

SingleParticleEvent::SingleParticleEvent ( )

inline

Definition at line 15 of file SingleParticleEvent.h.

                         {
     ID = 0;
     Px = 0.;
     Py = 0.;
     Pz = 0.;
     E = 0.;
     M = 0.;
     Vx = 0.;
     Vy = 0.;
     Vz = 0.;
     T0 = 0.;
     ID_in = 0;
     Px_in = 0.;
     Py_in = 0.;
     Pz_in = 0.;
     E_in = 0.;
     M_in = 0.;
     Vx_in = 0.;
     Vy_in = 0.;
     Vz_in = 0.;
     T0_in = 0.;
     HitTarget = false;
     PlugVx = PlugOnShaftVx;
     PlugVz = PlugOnShaftVz;
     RhoAir = 0.;
     RhoWall = 0.;
     RhoRock = 0.;
     RhoClay = 0.;
     RhoPlug = 0.;
     ClayWidth = DefaultClayWidth;
   }

References ClayWidth, DefaultClayWidth, E, E_in, HitTarget, ID, ID_in, M, M_in, PlugOnShaftVx, PlugOnShaftVz, PlugVx, PlugVz, Px, Px_in, Py, Py_in, Pz, Pz_in, RhoAir, RhoClay, RhoPlug, RhoRock, RhoWall, T0, T0_in, Vx, Vx_in, Vy, Vy_in, Vz, and Vz_in.

◆ ~SingleParticleEvent()

SingleParticleEvent::~SingleParticleEvent ( )

inline

Definition at line 47 of file SingleParticleEvent.h.

47 {}

Member Function Documentation

◆ absmom()

double SingleParticleEvent::absmom ( )

Definition at line 347 of file SingleParticleEvent.cc.

347 { return sqrt(Px * Px + Py * Py + Pz * Pz); }

References Px, Py, Pz, and mathSSE::sqrt().

Referenced by propagate(), and subtractEloss().

◆ absVz()

double SingleParticleEvent::absVz ( )

Definition at line 349 of file SingleParticleEvent.cc.

349 { return std::fabs(Vz); }

References Vz.

◆ absVzTmp()

double SingleParticleEvent::absVzTmp ( )

private

Definition at line 284 of file SingleParticleEvent.cc.

                                      {
   if (MTCC == true) {
     return tmpVz;  //need sign to be sure muon hits half of CMS with MTCC setup
   } else {
     return std::fabs(tmpVz);
   }
 }

References MTCC, and tmpVz.

Referenced by propagate().

◆ create()

void SingleParticleEvent::create	(	int	id,
		double	px,
		double	py,
		double	pz,
		double	e,
		double	m,
		double	vx,
		double	vy,
		double	vz,
		double	t0
	)

Definition at line 3 of file SingleParticleEvent.cc.

                                                                                                              {
   ID = ID_in = id;
   Px = Px_in = px;
   Py = Py_in = py;
   Pz = Pz_in = pz;
   E = E_in = e;
   M = M_in = m;
   Vx = Vx_in = vx;
   Vy = Vy_in = vy;
   Vz = Vz_in = vz;
   T0 = T0_in = t0;
   HitTarget = false;
 }

References E, e(), E_in, HitTarget, ID, id(), ID_in, M, m(), M_in, Px, px(), Px_in, Py, py(), Py_in, Pz, pz(), Pz_in, T0, t0(), T0_in, Vx, vx(), Vx_in, Vy, vy(), Vy_in, Vz, vz(), and Vz_in.

Referenced by CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ deltaEmin()

double SingleParticleEvent::deltaEmin ( double Energy )

Definition at line 261 of file SingleParticleEvent.cc.

                                                  {
   double dE = Eloss(waterEquivalents, E_sf);
   return E_ug - (E_sf - dE);
 }

References E_ug, Eloss(), and waterEquivalents.

◆ e()

double SingleParticleEvent::e ( )

Definition at line 324 of file SingleParticleEvent.cc.

324 { return E; }

References E.

Referenced by create(), CosmicMuonGenerator::displayEv(), CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ e_in()

double SingleParticleEvent::e_in ( )

Definition at line 304 of file SingleParticleEvent.cc.

304 { return E_in; }

References E_in.

◆ Eloss()

double SingleParticleEvent::Eloss	(	double	waterEquivalents,
		double	Energy
	)

Definition at line 246 of file SingleParticleEvent.cc.

                                                                         {
   double L10E = log10(Energy);
   // parameters for standard rock (PDG 2004, page 230)
   double A = (1.91514 + 0.254957 * L10E) / 1000.;                              // a [GeV g^-1 cm^2]
   double B = (0.379763 + 1.69516 * L10E - 0.175026 * L10E * L10E) / 1000000.;  // b [g^-1 cm^2]
   double EPS = A / B;                                                          // epsilon [GeV]
   double newEnergy = (Energy + EPS) * exp(-B * waterEquivalents) - EPS;        // updated energy
   double EnergyLoss = Energy - newEnergy;
   return EnergyLoss;
 }

References TtFullHadDaughter::B, EcalCondDBWriter_cfi::Energy, MaterialEffects_cfi::EnergyLoss, EPS, JetChargeProducer_cfi::exp, and waterEquivalents.

Referenced by deltaEmin().

◆ Eug()

double SingleParticleEvent::Eug ( )

Definition at line 259 of file SingleParticleEvent.cc.

259 { return E_ug; }

References E_ug.

Referenced by setEug().

◆ hitTarget()

bool SingleParticleEvent::hitTarget ( )

Definition at line 294 of file SingleParticleEvent.cc.

294 { return HitTarget; }

References HitTarget.

Referenced by CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ id()

int SingleParticleEvent::id ( void )

Definition at line 316 of file SingleParticleEvent.cc.

316 { return ID; }

References ID.

Referenced by create(), CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ id_in()

int SingleParticleEvent::id_in ( )

Definition at line 296 of file SingleParticleEvent.cc.

296 { return ID_in; }

References ID_in.

◆ m()

double SingleParticleEvent::m ( )

Definition at line 326 of file SingleParticleEvent.cc.

326 { return M; }

References M.

Referenced by create(), and CosmicMuonGenerator::nextEvent().

◆ m_in()

double SingleParticleEvent::m_in ( )

Definition at line 306 of file SingleParticleEvent.cc.

306 { return M_in; }

References M_in.

◆ phi()

double SingleParticleEvent::phi ( void )

Definition at line 338 of file SingleParticleEvent.cc.

                                 {
   double phiXZ = atan2(Px, Pz);
   if (phiXZ < 0.)
     phiXZ = phiXZ + TwoPi;
   return phiXZ;
 }

References Px, Pz, and TwoPi.

Referenced by Particle.Particle::__str__(), CosmicMuonGenerator::goodOrientation(), CosmicMuonGenerator::nextEvent(), and ntupleDataFormat.Track::phiPull().

◆ propagate()

void SingleParticleEvent::propagate	(	double	ElossScaleFac,
		double	RadiusTarget,
		double	Z_DistTarget,
		double	Z_CentrTarget,
		bool	TrackerOnly,
		bool	MTCCHalf
	)

Definition at line 18 of file SingleParticleEvent.cc.

                                                    {
   MTCC = MTCCHalf;  //need to know this boolean in absVzTmp()
   // calculated propagation direction
   dX = Px / absmom();
   dY = Py / absmom();
   dZ = Pz / absmom();
   // propagate with decreasing step size
   tmpVx = Vx;
   tmpVy = Vy;
   tmpVz = Vz;
   double RadiusTargetEff = RadiusTarget;
   double Z_DistTargetEff = Z_DistTarget;
   double Z_CentrTargetEff = Z_CentrTarget;
   if (TrackerOnly == true) {
     RadiusTargetEff = RadiusTracker;
     Z_DistTargetEff = Z_DistTracker;
   }
   HitTarget = true;
   if (HitTarget == true) {
     HitTarget = false;
     double stepSize = MinStepSize * 100000.;
     double acceptR = RadiusTargetEff + stepSize;
     double acceptZ = Z_DistTargetEff + stepSize;
     bool continuePropagation = true;
     while (continuePropagation) {
       //if (tmpVy < -acceptR) continuePropagation = false;
       if (dY < 0. && tmpVy < -acceptR)
         continuePropagation = false;
       if (dY >= 0. && tmpVy > acceptR)
         continuePropagation = false;
       //if (absVzTmp() < acceptZ && rVxyTmp() < acceptR){
       if (std::fabs(tmpVz - Z_CentrTargetEff) < acceptZ && rVxyTmp() < acceptR) {
         HitTarget = true;
         continuePropagation = false;
       }
       if (continuePropagation)
         updateTmp(stepSize);
     }
   }
   if (HitTarget == true) {
     HitTarget = false;
     double stepSize = MinStepSize * 10000.;
     double acceptR = RadiusTargetEff + stepSize;
     double acceptZ = Z_DistTargetEff + stepSize;
     bool continuePropagation = true;
     while (continuePropagation) {
       //if (tmpVy < -acceptR) continuePropagation = false;
       if (dY < 0. && tmpVy < -acceptR)
         continuePropagation = false;
       if (dY >= 0. && tmpVy > acceptR)
         continuePropagation = false;
       //if (absVzTmp() < acceptZ && rVxyTmp() < acceptR){
       if (std::fabs(tmpVz - Z_CentrTargetEff) < acceptZ && rVxyTmp() < acceptR) {
         HitTarget = true;
         continuePropagation = false;
       }
       if (continuePropagation)
         updateTmp(stepSize);
     }
   }
   if (HitTarget == true) {
     HitTarget = false;
     double stepSize = MinStepSize * 1000.;
     double acceptR = RadiusTargetEff + stepSize;
     double acceptZ = Z_DistTargetEff + stepSize;
     bool continuePropagation = true;
     while (continuePropagation) {
       //if (tmpVy < -acceptR) continuePropagation = false;
       if (dY < 0. && tmpVy < -acceptR)
         continuePropagation = false;
       if (dY >= 0. && tmpVy > acceptR)
         continuePropagation = false;
       //if (absVzTmp() < acceptZ && rVxyTmp() < acceptR){
       if (std::fabs(tmpVz - Z_CentrTargetEff) < acceptZ && rVxyTmp() < acceptR) {
         HitTarget = true;
         continuePropagation = false;
       }
       if (continuePropagation)
         updateTmp(stepSize);
     }
   }
   if (HitTarget == true) {
     HitTarget = false;
     double stepSize = MinStepSize * 100.;
     double acceptR = RadiusTargetEff + stepSize;
     double acceptZ = Z_DistTargetEff + stepSize;
     bool continuePropagation = true;
     while (continuePropagation) {
       //if (tmpVy < -acceptR) continuePropagation = false;
       if (dY < 0. && tmpVy < -acceptR)
         continuePropagation = false;
       if (dY >= 0. && tmpVy > acceptR)
         continuePropagation = false;
       //if (absVzTmp() < acceptZ && rVxyTmp() < acceptR){
       if (std::fabs(tmpVz - Z_CentrTargetEff) < acceptZ && rVxyTmp() < acceptR) {
         HitTarget = true;
         continuePropagation = false;
       }
       if (continuePropagation)
         updateTmp(stepSize);
     }
   }
   if (HitTarget == true) {
     HitTarget = false;
     double stepSize = MinStepSize * 10.;
     double acceptR = RadiusTargetEff + stepSize;
     double acceptZ = Z_DistTargetEff + stepSize;
     bool continuePropagation = true;
     while (continuePropagation) {
       //if (tmpVy < -acceptR) continuePropagation = false;
       if (dY < 0. && tmpVy < -acceptR)
         continuePropagation = false;
       if (dY >= 0. && tmpVy > acceptR)
         continuePropagation = false;
       //if (absVzTmp() < acceptZ && rVxyTmp() < acceptR){
       if (std::fabs(tmpVz - Z_CentrTargetEff) < acceptZ && rVxyTmp() < acceptR) {
         HitTarget = true;
         continuePropagation = false;
       }
       if (continuePropagation)
         updateTmp(stepSize);
     }
   }
   if (HitTarget == true) {
     HitTarget = false;
     double stepSize = MinStepSize * 1.;
     double acceptR = RadiusTargetEff + stepSize;
     double acceptZ = Z_DistTargetEff + stepSize;
     bool continuePropagation = true;
     while (continuePropagation) {
       //if (tmpVy < -acceptR) continuePropagation = false;
       if (dY < 0. && tmpVy < -acceptR)
         continuePropagation = false;
       if (dY >= 0. && tmpVy > acceptR)
         continuePropagation = false;
       //if (0 < absVzTmp()){ //only check for MTCC setup in last step of propagation, need fine stepSize
       if (absVzTmp() < acceptZ && rVxyTmp() < acceptR) {
         if (std::fabs(tmpVz - Z_CentrTargetEff) < acceptZ && rVxyTmp() < acceptR) {
           HitTarget = true;
           continuePropagation = false;
         }
       }
       if (continuePropagation)
         updateTmp(stepSize);
     }
   }
   // actual propagation + energy loss
   if (HitTarget == true) {
     HitTarget = false;
     //int nAir = 0; int nWall = 0; int nRock = 0; int nClay = 0; int nPlug = 0;
     int nMat[6] = {0, 0, 0, 0, 0, 0};
     double stepSize = MinStepSize * 1.;  // actual step size
     double acceptR = RadiusCMS + stepSize;
     double acceptZ = Z_DistCMS + stepSize;
     if (TrackerOnly == true) {
       acceptR = RadiusTracker + stepSize;
       acceptZ = Z_DistTracker + stepSize;
     }
     bool continuePropagation = true;
     while (continuePropagation) {
       //if (Vy < -acceptR) continuePropagation = false;
       if (dY < 0. && tmpVy < -acceptR)
         continuePropagation = false;
       if (dY >= 0. && tmpVy > acceptR)
         continuePropagation = false;
       //if (absVz() < acceptZ && rVxy() < acceptR){
       if (std::fabs(Vz - Z_CentrTargetEff) < acceptZ && rVxy() < acceptR) {
         HitTarget = true;
         continuePropagation = false;
       }
       if (continuePropagation)
         update(stepSize);
  
       int Mat = inMat(Vx, Vy, Vz, PlugVx, PlugVz, ClayWidth);
  
       nMat[Mat]++;
     }
  
     if (HitTarget) {
       double lPlug = double(nMat[Plug]) * stepSize;
       double lWall = double(nMat[Wall]) * stepSize;
       double lAir = double(nMat[Air]) * stepSize;
       double lClay = double(nMat[Clay]) * stepSize;
       double lRock = double(nMat[Rock]) * stepSize;
       //double lUnknown = double(nMat[Unknown])*stepSize;
  
       double waterEquivalents =
           (lAir * RhoAir + lWall * RhoWall + lRock * RhoRock + lClay * RhoClay + lPlug * RhoPlug) * ElossScaleFac /
           10.;  // [g cm^-2]
       subtractEloss(waterEquivalents);
       if (E < MuonMass)
         HitTarget = false;  // muon stopped in the material around the target
     }
   }
   // end of propagation part
 }

References absmom(), absVzTmp(), Air, Clay, ClayWidth, dX, dY, dZ, E, HitTarget, inMat(), MinStepSize, MTCC, CMSCGENproducer_cfi::MTCCHalf, MuonMass, Plug, PlugVx, PlugVz, Px, Py, Pz, RadiusCMS, RadiusTracker, RhoAir, RhoClay, RhoPlug, RhoRock, RhoWall, Rock, rVxy(), rVxyTmp(), subtractEloss(), tmpVx, tmpVy, tmpVz, CMSCGENproducer_cfi::TrackerOnly, update(), updateTmp(), Vx, Vy, Vz, Wall, waterEquivalents, Z_DistCMS, and Z_DistTracker.

Referenced by CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ px()

double SingleParticleEvent::px ( )

Definition at line 318 of file SingleParticleEvent.cc.

318 { return Px; }

References Px.

Referenced by create(), CosmicMuonGenerator::displayEv(), CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ px_in()

double SingleParticleEvent::px_in ( )

Definition at line 298 of file SingleParticleEvent.cc.

298 { return Px_in; }

References Px_in.

◆ py()

double SingleParticleEvent::py ( )

Definition at line 320 of file SingleParticleEvent.cc.

320 { return Py; }

References Py.

Referenced by create(), CosmicMuonGenerator::displayEv(), CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ py_in()

double SingleParticleEvent::py_in ( )

Definition at line 300 of file SingleParticleEvent.cc.

300 { return Py_in; }

References Py_in.

◆ pz()

double SingleParticleEvent::pz ( )

Definition at line 322 of file SingleParticleEvent.cc.

322 { return Pz; }

References Pz.

Referenced by create(), CosmicMuonGenerator::displayEv(), CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ pz_in()

double SingleParticleEvent::pz_in ( )

Definition at line 302 of file SingleParticleEvent.cc.

302 { return Pz_in; }

References Pz_in.

◆ rVxy()

double SingleParticleEvent::rVxy ( )

Definition at line 351 of file SingleParticleEvent.cc.

351 { return sqrt(Vx * Vx + Vy * Vy); }

References mathSSE::sqrt(), Vx, and Vy.

Referenced by propagate().

◆ rVxyTmp()

double SingleParticleEvent::rVxyTmp ( )

private

Definition at line 292 of file SingleParticleEvent.cc.

292 { return sqrt(tmpVx * tmpVx + tmpVy * tmpVy); }

References mathSSE::sqrt(), tmpVx, and tmpVy.

Referenced by propagate().

◆ setEug()

void SingleParticleEvent::setEug ( double Eug )

Definition at line 257 of file SingleParticleEvent.cc.

257 { E_ug = Eug; }

References E_ug, and Eug().

◆ subtractEloss()

void SingleParticleEvent::subtractEloss ( double waterEquivalents )

private

Definition at line 232 of file SingleParticleEvent.cc.

                                                                {
   double L10E = log10(E);
   // parameters for standard rock (PDG 2004, page 230)
   double A = (1.91514 + 0.254957 * L10E) / 1000.;                              // a [GeV g^-1 cm^2]
   double B = (0.379763 + 1.69516 * L10E - 0.175026 * L10E * L10E) / 1000000.;  // b [g^-1 cm^2]
   double EPS = A / B;                                                          // epsilon [GeV]
   E = (E + EPS) * exp(-B * waterEquivalents) - EPS;                            // updated energy
   double oldAbsMom = absmom();
   double newAbsMom = sqrt(E * E - MuonMass * MuonMass);
   Px = Px * newAbsMom / oldAbsMom;  // updated px
   Py = Py * newAbsMom / oldAbsMom;  // updated py
   Pz = Pz * newAbsMom / oldAbsMom;  // updated pz
 }

References absmom(), TtFullHadDaughter::B, E, EPS, JetChargeProducer_cfi::exp, MuonMass, Px, Py, Pz, mathSSE::sqrt(), and waterEquivalents.

Referenced by propagate().

◆ SurfProj()

void SingleParticleEvent::SurfProj	(	double	Vx_in,
		double	Vy_in,
		double	Vz_in,
		double	Px_in,
		double	Py_in,
		double	Pz_in,
		double &	Vx_up,
		double &	Vy_up,
		double &	Vz_up
	)

Definition at line 266 of file SingleParticleEvent.cc.

                                                   {
   //determine vertex of muon at Surface (+PlugWidth)
   double dy = Vy_in - (SurfaceOfEarth + PlugWidth);
   Vy_up = Vy_in - dy;
   Vx_up = Vx_in - dy * Px_in / Py_in;
   Vz_up = Vz_in - dy * Pz_in / Py_in;
   if (Debug)
     std::cout << "Vx_up=" << Vx_up << " Vy_up=" << Vy_up << " Vz_up=" << Vz_up << std::endl;
 }

References gather_cfg::cout, Debug, PVValHelper::dy, PlugWidth, Px_in, Py_in, Pz_in, SurfaceOfEarth, Vx_in, Vy_in, and Vz_in.

◆ t0()

double SingleParticleEvent::t0 ( )

Definition at line 334 of file SingleParticleEvent.cc.

334 { return T0; }

References T0.

Referenced by create(), CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ t0_in()

double SingleParticleEvent::t0_in ( )

Definition at line 314 of file SingleParticleEvent.cc.

314 { return T0_in; }

References T0_in.

◆ theta()

double SingleParticleEvent::theta ( void )

Definition at line 345 of file SingleParticleEvent.cc.

345 { return atan2(sqrt(Px * Px + Pz * Pz), -Py); }

References Px, Py, Pz, and mathSSE::sqrt().

Referenced by CosmicMuonGenerator::goodOrientation(), CosmicMuonGenerator::nextEvent(), and Tau.Tau::zImpact().

◆ update()

void SingleParticleEvent::update ( double stepSize )

private

Definition at line 220 of file SingleParticleEvent.cc.

                                                 {
   Vx += stepSize * dX;
   Vy += stepSize * dY;
   Vz += stepSize * dZ;
 }

References dX, dY, dZ, Vx, Vy, and Vz.

Referenced by progressbar.ProgressBar::__next__(), MatrixUtil.Matrix::__setitem__(), MatrixUtil.Steps::__setitem__(), progressbar.ProgressBar::finish(), MatrixUtil.Steps::overwrite(), and propagate().

◆ updateTmp()

void SingleParticleEvent::updateTmp ( double stepSize )

private

Definition at line 226 of file SingleParticleEvent.cc.

                                                    {
   tmpVx += stepSize * dX;
   tmpVy += stepSize * dY;
   tmpVz += stepSize * dZ;
 }

References dX, dY, dZ, tmpVx, tmpVy, and tmpVz.

Referenced by propagate().

◆ vx()

double SingleParticleEvent::vx ( )

Definition at line 328 of file SingleParticleEvent.cc.

328 { return Vx; }

References Vx.

Referenced by create(), CosmicMuonGenerator::displayEv(), CosmicMuonGenerator::goodOrientation(), CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ vx_in()

double SingleParticleEvent::vx_in ( )

Definition at line 308 of file SingleParticleEvent.cc.

308 { return Vx_in; }

References Vx_in.

◆ vy()

double SingleParticleEvent::vy ( )

Definition at line 330 of file SingleParticleEvent.cc.

330 { return Vy; }

References Vy.

Referenced by create(), CosmicMuonGenerator::displayEv(), CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ vy_in()

double SingleParticleEvent::vy_in ( )

Definition at line 310 of file SingleParticleEvent.cc.

310 { return Vy_in; }

References Vy_in.

◆ vz()

double SingleParticleEvent::vz ( )

Definition at line 332 of file SingleParticleEvent.cc.

332 { return Vz; }

References Vz.

Referenced by create(), CosmicMuonGenerator::displayEv(), CosmicMuonGenerator::goodOrientation(), CosmicMuonGenerator::nextEvent(), and CosmicMuonGenerator::nextMultiEvent().

◆ vz_in()

double SingleParticleEvent::vz_in ( )

Definition at line 312 of file SingleParticleEvent.cc.

312 { return Vz_in; }

References Vz_in.

◆ WaterEquivalents()

double SingleParticleEvent::WaterEquivalents ( )

Definition at line 336 of file SingleParticleEvent.cc.

336 { return waterEquivalents; }

References waterEquivalents.

Member Data Documentation

◆ ClayWidth

double SingleParticleEvent::ClayWidth

Definition at line 153 of file SingleParticleEvent.h.

Referenced by propagate(), and SingleParticleEvent().

◆ dX

double SingleParticleEvent::dX

private

Definition at line 74 of file SingleParticleEvent.h.

Referenced by propagate(), update(), and updateTmp().

◆ dY

double SingleParticleEvent::dY

private

Definition at line 75 of file SingleParticleEvent.h.

Referenced by propagate(), update(), and updateTmp().

◆ dZ

double SingleParticleEvent::dZ

private

Definition at line 76 of file SingleParticleEvent.h.

Referenced by propagate(), update(), and updateTmp().

◆ E

double SingleParticleEvent::E

private

Definition at line 54 of file SingleParticleEvent.h.

Referenced by create(), e(), propagate(), SingleParticleEvent(), and subtractEloss().

◆ E_in

double SingleParticleEvent::E_in

private

Definition at line 64 of file SingleParticleEvent.h.

Referenced by create(), e_in(), and SingleParticleEvent().

◆ E_ug

double SingleParticleEvent::E_ug

Definition at line 155 of file SingleParticleEvent.h.

Referenced by deltaEmin(), Eug(), and setEug().

◆ HitTarget

bool SingleParticleEvent::HitTarget

private

Definition at line 70 of file SingleParticleEvent.h.

Referenced by create(), hitTarget(), propagate(), and SingleParticleEvent().

◆ ID

int SingleParticleEvent::ID

private

Definition at line 50 of file SingleParticleEvent.h.

Referenced by create(), id(), and SingleParticleEvent().

◆ ID_in

int SingleParticleEvent::ID_in

private

Definition at line 60 of file SingleParticleEvent.h.

Referenced by create(), id_in(), and SingleParticleEvent().

◆ M

double SingleParticleEvent::M

private

Definition at line 55 of file SingleParticleEvent.h.

Referenced by create(), m(), and SingleParticleEvent().

◆ M_in

double SingleParticleEvent::M_in

private

Definition at line 65 of file SingleParticleEvent.h.

Referenced by create(), m_in(), and SingleParticleEvent().

◆ MTCC

bool SingleParticleEvent::MTCC

private

Definition at line 71 of file SingleParticleEvent.h.

Referenced by absVzTmp(), and propagate().

◆ PlugVx

double SingleParticleEvent::PlugVx

Definition at line 146 of file SingleParticleEvent.h.

Referenced by CosmicMuonGenerator::initialize(), propagate(), and SingleParticleEvent().

◆ PlugVz

double SingleParticleEvent::PlugVz

Definition at line 147 of file SingleParticleEvent.h.

Referenced by CosmicMuonGenerator::initialize(), propagate(), and SingleParticleEvent().

◆ Px

double SingleParticleEvent::Px

private

Definition at line 51 of file SingleParticleEvent.h.

Referenced by absmom(), create(), phi(), propagate(), px(), SingleParticleEvent(), subtractEloss(), and theta().

◆ Px_in

double SingleParticleEvent::Px_in

private

Definition at line 61 of file SingleParticleEvent.h.

Referenced by create(), px_in(), SingleParticleEvent(), and SurfProj().

◆ Py

double SingleParticleEvent::Py

private

Definition at line 52 of file SingleParticleEvent.h.

Referenced by absmom(), create(), propagate(), py(), SingleParticleEvent(), subtractEloss(), and theta().

◆ Py_in

double SingleParticleEvent::Py_in

private

Definition at line 62 of file SingleParticleEvent.h.

Referenced by create(), py_in(), SingleParticleEvent(), and SurfProj().

◆ Pz

double SingleParticleEvent::Pz

private

Definition at line 53 of file SingleParticleEvent.h.

Referenced by absmom(), create(), phi(), propagate(), pz(), SingleParticleEvent(), subtractEloss(), and theta().

◆ Pz_in

double SingleParticleEvent::Pz_in

private

Definition at line 63 of file SingleParticleEvent.h.

Referenced by create(), pz_in(), SingleParticleEvent(), and SurfProj().

◆ RhoAir

double SingleParticleEvent::RhoAir

Definition at line 148 of file SingleParticleEvent.h.

Referenced by CosmicMuonGenerator::initialize(), propagate(), and SingleParticleEvent().

◆ RhoClay

double SingleParticleEvent::RhoClay

Definition at line 151 of file SingleParticleEvent.h.

Referenced by CosmicMuonGenerator::initialize(), propagate(), and SingleParticleEvent().

◆ RhoPlug

double SingleParticleEvent::RhoPlug

Definition at line 152 of file SingleParticleEvent.h.

Referenced by CosmicMuonGenerator::initialize(), propagate(), and SingleParticleEvent().

◆ RhoRock

double SingleParticleEvent::RhoRock

Definition at line 150 of file SingleParticleEvent.h.

Referenced by CosmicMuonGenerator::initialize(), propagate(), and SingleParticleEvent().

◆ RhoWall

double SingleParticleEvent::RhoWall

Definition at line 149 of file SingleParticleEvent.h.

Referenced by CosmicMuonGenerator::initialize(), propagate(), and SingleParticleEvent().

◆ T0

double SingleParticleEvent::T0

private

Definition at line 59 of file SingleParticleEvent.h.

Referenced by create(), SingleParticleEvent(), and t0().

◆ T0_in

double SingleParticleEvent::T0_in

private

Definition at line 69 of file SingleParticleEvent.h.

Referenced by create(), SingleParticleEvent(), and t0_in().

◆ tmpVx

double SingleParticleEvent::tmpVx

private

Definition at line 77 of file SingleParticleEvent.h.

Referenced by propagate(), rVxyTmp(), and updateTmp().

◆ tmpVy

double SingleParticleEvent::tmpVy

private

Definition at line 78 of file SingleParticleEvent.h.

Referenced by propagate(), rVxyTmp(), and updateTmp().

◆ tmpVz

double SingleParticleEvent::tmpVz

private

Definition at line 79 of file SingleParticleEvent.h.

Referenced by absVzTmp(), propagate(), and updateTmp().

◆ Vx

double SingleParticleEvent::Vx

private

Definition at line 56 of file SingleParticleEvent.h.

Referenced by create(), propagate(), rVxy(), SingleParticleEvent(), update(), and vx().

◆ Vx_in

double SingleParticleEvent::Vx_in

private

Definition at line 66 of file SingleParticleEvent.h.

Referenced by create(), SingleParticleEvent(), SurfProj(), and vx_in().

◆ Vy

double SingleParticleEvent::Vy

private

Definition at line 57 of file SingleParticleEvent.h.

Referenced by create(), propagate(), rVxy(), SingleParticleEvent(), update(), and vy().

◆ Vy_in

double SingleParticleEvent::Vy_in

private

Definition at line 67 of file SingleParticleEvent.h.

Referenced by create(), SingleParticleEvent(), SurfProj(), and vy_in().

◆ Vz

double SingleParticleEvent::Vz

private

Definition at line 58 of file SingleParticleEvent.h.

Referenced by absVz(), create(), propagate(), SingleParticleEvent(), update(), and vz().

◆ Vz_in

double SingleParticleEvent::Vz_in

private

Definition at line 68 of file SingleParticleEvent.h.

Referenced by create(), SingleParticleEvent(), SurfProj(), and vz_in().

◆ waterEquivalents

double SingleParticleEvent::waterEquivalents

Definition at line 154 of file SingleParticleEvent.h.

Referenced by deltaEmin(), Eloss(), propagate(), subtractEloss(), and WaterEquivalents().

Public Member Functions

Public Attributes

Private Member Functions

Private Attributes

Detailed Description

Constructor & Destructor Documentation

◆ SingleParticleEvent()

◆ ~SingleParticleEvent()

Member Function Documentation

◆ absmom()

◆ absVz()

◆ absVzTmp()

◆ create()

◆ deltaEmin()

◆ e()

◆ e_in()

◆ Eloss()

◆ Eug()

◆ hitTarget()

◆ id()

◆ id_in()

◆ m()

◆ m_in()

◆ phi()

◆ propagate()

◆ px()

◆ px_in()

◆ py()

◆ py_in()

◆ pz()

◆ pz_in()

◆ rVxy()

◆ rVxyTmp()

◆ setEug()

◆ subtractEloss()

◆ SurfProj()

◆ t0()

◆ t0_in()

◆ theta()

◆ update()

◆ updateTmp()

◆ vx()

◆ vx_in()

◆ vy()

◆ vy_in()

◆ vz()

◆ vz_in()

◆ WaterEquivalents()

Member Data Documentation

◆ ClayWidth

◆ dX

◆ dY

◆ dZ

◆ E

◆ E_in

◆ E_ug

◆ HitTarget

◆ ID

◆ ID_in

◆ M

◆ M_in

◆ MTCC

◆ PlugVx

◆ PlugVz

◆ Px

◆ Px_in

◆ Py

◆ Py_in

◆ Pz

◆ Pz_in

◆ RhoAir

◆ RhoClay

◆ RhoPlug

◆ RhoRock

◆ RhoWall

◆ T0

◆ T0_in

◆ tmpVx

◆ tmpVy

◆ tmpVz