#include <GNuMIFlux.h>

Inheritance diagram for genie::flux::GNuMIFluxPassThroughInfo:

Collaboration diagram for genie::flux::GNuMIFluxPassThroughInfo:

Public Member Functions
	GNuMIFluxPassThroughInfo ()

virtual	~GNuMIFluxPassThroughInfo ()

void	MakeCopy (const g3numi *)
	pull in from g3 ntuple More...

void	MakeCopy (const g4numi *)
	pull in from g4 ntuple More...

void	MakeCopy (const flugg *)
	pull in from flugg ntuple More...

void	ResetCopy ()

void	ResetCurrent ()

void	ConvertPartCodes ()

void	Print (const Option_t *opt="") const

int	CalcEnuWgt (const TLorentzVector &xyz, double &enu, double &wgt_xy) const

int	getProcessID (TString sval)

int	getVolID (TString sval)

Public Attributes
int	pcodes

int	units

int	fgPdgC
	generated nu pdg-code More...

double	fgXYWgt

TLorentzVector	fgP4
	generated nu 4-momentum beam coord More...

TLorentzVector	fgX4
	generated nu 4-position beam coord More...

TLorentzVector	fgP4User
	generated nu 4-momentum user coord More...

TLorentzVector	fgX4User
	generated nu 4-position user coord More...

Int_t	run

Int_t	evtno

Double_t	ndxdz

Double_t	ndydz

Double_t	npz

Double_t	nenergy

Double_t	ndxdznea

Double_t	ndydznea

Double_t	nenergyn

Double_t	nwtnear

Double_t	ndxdzfar

Double_t	ndydzfar

Double_t	nenergyf

Double_t	nwtfar

Int_t	norig

Int_t	ndecay

Int_t	ntype

Double_t	vx

Double_t	vy

Double_t	vz

Double_t	pdpx

Double_t	pdpy

Double_t	pdpz

Double_t	ppdxdz

Double_t	ppdydz

Double_t	pppz

Double_t	ppenergy

Int_t	ppmedium

Int_t	ptype

Double_t	ppvx

Double_t	ppvy

Double_t	ppvz

Double_t	muparpx

Double_t	muparpy

Double_t	muparpz

Double_t	mupare

Double_t	necm

Double_t	nimpwt

Double_t	xpoint

Double_t	ypoint

Double_t	zpoint

Double_t	tvx

Double_t	tvy

Double_t	tvz

Double_t	tpx

Double_t	tpy

Double_t	tpz

Int_t	tptype

Int_t	tgen

Int_t	tgptype

Double_t	tgppx

Double_t	tgppy

Double_t	tgppz

Double_t	tprivx

Double_t	tprivy

Double_t	tprivz

Double_t	beamx

Double_t	beamy

Double_t	beamz

Double_t	beampx

Double_t	beampy

Double_t	beampz

Int_t	ntrajectory

Bool_t	overflow

int	pdgcode [MAX_N_TRAJ]

int	trackId [MAX_N_TRAJ]

int	parentId [MAX_N_TRAJ]

double	startx [MAX_N_TRAJ]

double	starty [MAX_N_TRAJ]

double	startz [MAX_N_TRAJ]

double	startpx [MAX_N_TRAJ]

double	startpy [MAX_N_TRAJ]

double	startpz [MAX_N_TRAJ]

double	stopx [MAX_N_TRAJ]

double	stopy [MAX_N_TRAJ]

double	stopz [MAX_N_TRAJ]

double	stoppx [MAX_N_TRAJ]

double	stoppy [MAX_N_TRAJ]

double	stoppz [MAX_N_TRAJ]

double	pprodpx [MAX_N_TRAJ]

double	pprodpy [MAX_N_TRAJ]

double	pprodpz [MAX_N_TRAJ]

int	proc [MAX_N_TRAJ]

int	ivol [MAX_N_TRAJ]

int	fvol [MAX_N_TRAJ]

Static Public Attributes
static const unsigned int	MAX_N_TRAJ = 10
	Maximum number of trajectories to store. More...

Friends
ostream &	operator<< (ostream &stream, const GNuMIFluxPassThroughInfo &info)

Detailed Description

GNuMIFluxPassThroughInfo:

A small persistable C-struct -like class that mirrors (some of) the structure of the gnumi ntuples. This can then be stored as an extra branch of the output event tree -alongside with the generated event branch- for use further upstream in the analysis chain - e.g. beam reweighting etc. To do future x-y reweighting users must retain the info found in:

Definition at line 73 of file GNuMIFlux.h.

Constructor & Destructor Documentation

GNuMIFluxPassThroughInfo::GNuMIFluxPassThroughInfo ( )

Definition at line 1248 of file GNuMIFlux.cxx.

References ResetCopy(), and ResetCurrent().

   : TObject()
 {
   ResetCopy();
   ResetCurrent();
 }

virtual genie::flux::GNuMIFluxPassThroughInfo::~GNuMIFluxPassThroughInfo ( )

inlinevirtual

Definition at line 79 of file GNuMIFlux.h.

79 { };

Member Function Documentation

int GNuMIFluxPassThroughInfo::CalcEnuWgt	(	const TLorentzVector &	xyz,
		double &	enu,
		double &	wgt_xy
	)		const

Definition at line 1729 of file GNuMIFlux.cxx.

References kRDET, LOG, mupare, muparpx, muparpy, muparpz, necm, ntype, pdpx, pdpy, pdpz, pFATAL, ppdxdz, ppdydz, ppenergy, pppz, ptype, genie::units::rad, vx, vy, and vz.

 {
 
   // Neutrino Energy and Weigth at arbitrary point
   // based on:
   //   NuMI-NOTE-BEAM-0109 (MINOS DocDB # 109)
   //   Title:   Neutrino Beam Simulation using PAW with Weighted Monte Carlos
   //   Author:  Rick Milburn
   //   Date:    1995-10-01
 
   // history:
   // jzh  3/21/96 grab R.H.Milburn's weighing routine
   // jzh  5/ 9/96 substantially modify the weighting function use dot product
   //              instead of rotation vecs to get theta get all info except
   //              det from ADAMO banks neutrino parent is in Particle.inc
   //              Add weighting factor for polarized muon decay
   // jzh  4/17/97 convert more code to double precision because of problems
   //              with Enu>30 GeV
   // rwh 10/ 9/08 transliterate function from f77 to C++
 
   // original function description:
   //   Real function for use with PAW Ntuple To transform from destination
   //   detector geometry to the unit sphere moving with decaying hadron with
   //   velocity v, BETA=v/c, etc..  For (pseudo)scalar hadrons the decays will
   //   be isotropic in this  sphere so the fractional area (out of 4-pi) is the
   //   fraction of decays that hit the target.  For a given target point and
   //   area, and given x-y components of decay transverse location and slope,
   //   and given decay distance from target ans given decay GAMMA and
   //   rest-frame neutrino energy, the lab energy at the target and the
   //   fractional solid angle in the rest-frame are determined.
   //   For muon decays, correction for non-isotropic nature of decay is done.
 
   // Arguments:
   //    double x, y, z :: position to evaluate for (enu,wgt_xy)
   //        in *beam* frame coordinates  (cm units)
   //    double enu, wgt_xy :: resulting energy and weight
   // Return:
   //    int :: error code
   // Assumptions:
   //    Energies given in GeV
   //    Particle codes have been translated from GEANT into PDG codes
 
   // for now ... these _should_ come from DB
   // but use these hard-coded values to "exactly" reproduce old code
   //
   const double kPIMASS = 0.13957;
   const double kKMASS  = 0.49368;
   const double kK0MASS = 0.49767;
   const double kMUMASS = 0.105658389;
   const double kOMEGAMASS = 1.67245;
 
   const int kpdg_nue       =   12;  // extended Geant 53
   const int kpdg_nuebar    =  -12;  // extended Geant 52
   const int kpdg_numu      =   14;  // extended Geant 56
   const int kpdg_numubar   =  -14;  // extended Geant 55
 
   const int kpdg_muplus     =   -13;  // Geant  5
   const int kpdg_muminus    =    13;  // Geant  6
   const int kpdg_pionplus   =   211;  // Geant  8
   const int kpdg_pionminus  =  -211;  // Geant  9
   const int kpdg_k0long     =   130;  // Geant 10  ( K0=311, K0S=310 )
   const int kpdg_k0short    =   310;  // Geant 16
   const int kpdg_k0mix      =   311;
   const int kpdg_kaonplus   =   321;  // Geant 11
   const int kpdg_kaonminus  =  -321;  // Geant 12
   const int kpdg_omegaminus =  3334;  // Geant 24
   const int kpdg_omegaplus  = -3334;  // Geant 32
 
   const double kRDET = 100.0;   // set to flux per 100 cm radius
 
   double xpos = xyz.X();
   double ypos = xyz.Y();
   double zpos = xyz.Z();
 
   enu    = 0.0;  // don't know what the final value is
   wgt_xy = 0.0;  // but set these in case we return early due to error
 
 
   // in principle we should get these from the particle DB
   // but for consistency testing use the hardcoded values
   double parent_mass = kPIMASS;
   switch ( this->ptype ) {
   case kpdg_pionplus:
   case kpdg_pionminus:
     parent_mass = kPIMASS;
     break;
   case kpdg_kaonplus:
   case kpdg_kaonminus:
     parent_mass = kKMASS;
     break;
   case kpdg_k0long:
   case kpdg_k0short:
   case kpdg_k0mix:
     parent_mass = kK0MASS;
     break;
   case kpdg_muplus:
   case kpdg_muminus:
     parent_mass = kMUMASS;
     break;
   case kpdg_omegaminus:
   case kpdg_omegaplus:
     parent_mass = kOMEGAMASS;
     break;
   default:
     std::cerr << "NU_REWGT unknown particle type " << this->ptype
               << std::endl << std::flush;
     LOG("Flux",pFATAL) << "NU_REWGT unknown particle type " << this->ptype;
     assert(0);
     return 1;
   }
 
   double parentp2 = ( this->pdpx*this->pdpx +
                       this->pdpy*this->pdpy +
                       this->pdpz*this->pdpz );
   double parent_energy = TMath::Sqrt( parentp2 +
                                      parent_mass*parent_mass);
   double parentp = TMath::Sqrt( parentp2 );
 
   double gamma     = parent_energy / parent_mass;
   double gamma_sqr = gamma * gamma;
   double beta_mag  = TMath::Sqrt( ( gamma_sqr - 1.0 )/gamma_sqr );
 
   // Get the neutrino energy in the parent decay CM
   double enuzr = this->necm;
   // Get angle from parent line of flight to chosen point in beam frame
   double rad = TMath::Sqrt( (xpos-this->vx)*(xpos-this->vx) +
                             (ypos-this->vy)*(ypos-this->vy) +
                             (zpos-this->vz)*(zpos-this->vz) );
 
   double emrat = 1.0;
   double costh_pardet = -999., theta_pardet = -999.;
 
   // boost correction, but only if parent hasn't stopped
   if ( parentp > 0. ) {
     costh_pardet = ( this->pdpx*(xpos-this->vx) +
                      this->pdpy*(ypos-this->vy) +
                      this->pdpz*(zpos-this->vz) )
                      / ( parentp * rad);
     if ( costh_pardet >  1.0 ) costh_pardet =  1.0;
     if ( costh_pardet < -1.0 ) costh_pardet = -1.0;
     theta_pardet = TMath::ACos(costh_pardet);
 
     // Weighted neutrino energy in beam, approx, good for small theta
     emrat = 1.0 / ( gamma * ( 1.0 - beta_mag * costh_pardet ));
   }
 
   enu = emrat * enuzr;  // the energy ... normally
 
   // RWH-debug
   bool debug = false;
   if (debug) {
     std::cout << std::setprecision(15);
     std::cout << "xyz (" << xpos << "," << ypos << "," << zpos << ")" << std::endl;
     std::cout << "ptype " << this->ptype << " m " << parent_mass
               << " p " << parentp << " e " << parent_energy << " gamma " << gamma
               << " beta " << beta_mag << std::endl;
 
     std::cout << " enuzr " << enuzr << " rad " << rad << " costh " << costh_pardet
               << " theta " << theta_pardet << " emrat " << emrat
               << " enu " << enu << std::endl;
   }
 
 #ifdef  GNUMI_TEST_XY_WGT
   gpartials.xdet          = xpos;
   gpartials.ydet          = ypos;
   gpartials.zdet          = zpos;
   gpartials.parent_mass   = parent_mass;
   gpartials.parentp       = parentp;
   gpartials.parent_energy = parent_energy;
   gpartials.gamma         = gamma;
   gpartials.beta_mag      = beta_mag;
   gpartials.enuzr         = enuzr;
   gpartials.rad           = rad;
   gpartials.costh_pardet  = costh_pardet;
   gpartials.theta_pardet  = theta_pardet;
   gpartials.emrat         = emrat;
   gpartials.eneu          = enu;
 #endif
 
   // Get solid angle/4pi for detector element
   // small angle approximation, fixed by Alex Radovic
   //SAA//double sangdet = ( kRDET*kRDET / ( (zpos-this->vz)*(zpos-this->vz)))/4.0;
 
   double sanddetcomp = TMath::Sqrt(( (xpos-this->vx)*(xpos-this->vx) ) +
                                    ( (ypos-this->vy)*(ypos-this->vy) ) +
                                    ( (zpos-this->vz)*(zpos-this->vz) )   );
   double sangdet = ( 1.0 - TMath::Cos(TMath::ATan( kRDET / sanddetcomp)))/2.0;
 
   // Weight for solid angle and lorentz boost
   wgt_xy = sangdet * ( emrat * emrat );  // ! the weight ... normally
 
 #ifdef  GNUMI_TEST_XY_WGT
   gpartials.sangdet       = sangdet;
   gpartials.wgt           = wgt_xy;
   gpartials.ptype         = this->ptype; // assume already PDG
 #endif
 
   // Done for all except polarized muon decay
   // in which case need to modify weight
   // (must be done in double precision)
   if ( this->ptype == kpdg_muplus || this->ptype == kpdg_muminus) {
     double beta[3], p_dcm_nu[4], p_nu[3], p_pcm_mp[3], partial;
 
     // Boost neu neutrino to mu decay CM
     beta[0] = this->pdpx / parent_energy;
     beta[1] = this->pdpy / parent_energy;
     beta[2] = this->pdpz / parent_energy;
     p_nu[0] = (xpos-this->vx)*enu/rad;
     p_nu[1] = (ypos-this->vy)*enu/rad;
     p_nu[2] = (zpos-this->vz)*enu/rad;
     partial = gamma *
       (beta[0]*p_nu[0] + beta[1]*p_nu[1] + beta[2]*p_nu[2] );
     partial = enu - partial/(gamma+1.0);
     // the following calculation is numerically imprecise
     // especially p_dcm_nu[2] leads to taking the difference of numbers of order ~10's
     // and getting results of order ~0.02's
     // for g3numi we're starting with floats (ie. good to ~1 part in 10^7)
     p_dcm_nu[0] = p_nu[0] - beta[0]*gamma*partial;
     p_dcm_nu[1] = p_nu[1] - beta[1]*gamma*partial;
     p_dcm_nu[2] = p_nu[2] - beta[2]*gamma*partial;
     p_dcm_nu[3] = TMath::Sqrt( p_dcm_nu[0]*p_dcm_nu[0] +
                                p_dcm_nu[1]*p_dcm_nu[1] +
                                p_dcm_nu[2]*p_dcm_nu[2] );
 
 #ifdef  GNUMI_TEST_XY_WGT
     gpartials.betanu[0]     = beta[0];
     gpartials.betanu[1]     = beta[1];
     gpartials.betanu[2]     = beta[2];
     gpartials.p_nu[0]       = p_nu[0];
     gpartials.p_nu[1]       = p_nu[1];
     gpartials.p_nu[2]       = p_nu[2];
     gpartials.partial1      = partial;
     gpartials.p_dcm_nu[0]   = p_dcm_nu[0];
     gpartials.p_dcm_nu[1]   = p_dcm_nu[1];
     gpartials.p_dcm_nu[2]   = p_dcm_nu[2];
     gpartials.p_dcm_nu[3]   = p_dcm_nu[3];
 #endif
 
     // Boost parent of mu to mu production CM
     double particle_energy = this->ppenergy;
     gamma = particle_energy/parent_mass;
     beta[0] = this->ppdxdz * this->pppz / particle_energy;
     beta[1] = this->ppdydz * this->pppz / particle_energy;
     beta[2] =                    this->pppz / particle_energy;
     partial = gamma * ( beta[0]*this->muparpx +
                         beta[1]*this->muparpy +
                         beta[2]*this->muparpz );
     partial = this->mupare - partial/(gamma+1.0);
     p_pcm_mp[0] = this->muparpx - beta[0]*gamma*partial;
     p_pcm_mp[1] = this->muparpy - beta[1]*gamma*partial;
     p_pcm_mp[2] = this->muparpz - beta[2]*gamma*partial;
     double p_pcm = TMath::Sqrt ( p_pcm_mp[0]*p_pcm_mp[0] +
                                  p_pcm_mp[1]*p_pcm_mp[1] +
                                  p_pcm_mp[2]*p_pcm_mp[2] );
 
     //std::cout << " muparpxyz " << this->muparpx << " "
     //          << this->muparpy << " " << this->muparpz << std::endl;
     //std::cout << " beta " << beta[0] << " " << beta[1] << " " << beta[2] << std::endl;
     //std::cout << " gamma " << gamma << " partial " << partial << std::endl;
     //std::cout << " p_pcm_mp " << p_pcm_mp[0] << " " << p_pcm_mp[1] << " "
     //          << p_pcm_mp[2] << " " << p_pcm << std::endl;
 
 #ifdef  GNUMI_TEST_XY_WGT
     gpartials.muparent_px   = this->muparpx;
     gpartials.muparent_py   = this->muparpy;
     gpartials.muparent_pz   = this->muparpz;
     gpartials.gammamp       = gamma;
     gpartials.betamp[0]     = beta[0];
     gpartials.betamp[1]     = beta[1];
     gpartials.betamp[2]     = beta[2];
     gpartials.partial2      = partial;
     gpartials.p_pcm_mp[0]   = p_pcm_mp[0];
     gpartials.p_pcm_mp[1]   = p_pcm_mp[1];
     gpartials.p_pcm_mp[2]   = p_pcm_mp[2];
     gpartials.p_pcm         = p_pcm;
 #endif
 
     const double eps = 1.0e-30;  // ? what value to use
     if ( p_pcm < eps || p_dcm_nu[3] < eps ) {
       return 3; // mu missing parent info?
     }
     // Calc new decay angle w.r.t. (anti)spin direction
     double costh = ( p_dcm_nu[0]*p_pcm_mp[0] +
                      p_dcm_nu[1]*p_pcm_mp[1] +
                      p_dcm_nu[2]*p_pcm_mp[2] ) /
                    ( p_dcm_nu[3]*p_pcm );
     if ( costh >  1.0 ) costh =  1.0;
     if ( costh < -1.0 ) costh = -1.0;
     // Calc relative weight due to angle difference
     double wgt_ratio = 0.0;
     switch ( this->ntype ) {
     case kpdg_nue:
     case kpdg_nuebar:
       wgt_ratio = 1.0 - costh;
       break;
     case kpdg_numu:
     case kpdg_numubar:
     {
       double xnu = 2.0 * enuzr / kMUMASS;
       wgt_ratio = ( (3.0-2.0*xnu )  - (1.0-2.0*xnu)*costh ) / (3.0-2.0*xnu);
       break;
     }
     default:
       return 2; // bad neutrino type
     }
     wgt_xy = wgt_xy * wgt_ratio;
 
 #ifdef  GNUMI_TEST_XY_WGT
     gpartials.ntype     = this->ntype; // assume converted to PDG
     gpartials.costhmu   = costh;
     gpartials.wgt_ratio = wgt_ratio;
 #endif
 
   } // ptype is muon
 
   return 0;
 }

void GNuMIFluxPassThroughInfo::ConvertPartCodes ( )

Definition at line 1445 of file GNuMIFlux.cxx.

References genie::pdg::GeantToPdg(), genie::kPdgAntiNuE, genie::kPdgAntiNuMu, genie::kPdgNuE, genie::kPdgNuMu, LOG, ntype, pcodes, pNOTICE, ptype, tgptype, and tptype.

 {
   if ( pcodes == 0 ) {
     pcodes = 1;  // flag that conversion has been made
     switch ( ntype ) {
     case 56: ntype = kPdgNuMu;     break;
     case 55: ntype = kPdgAntiNuMu; break;
     case 53: ntype = kPdgNuE;      break;
     case 52: ntype = kPdgAntiNuE;  break;
     default:
       LOG("Flux", pNOTICE)
         << "ConvertPartCodes saw ntype " << ntype << " -- unknown ";
     }
     if ( ptype   != 0 ) ptype   = pdg::GeantToPdg(ptype);
     if ( tptype  != 0 ) tptype  = pdg::GeantToPdg(tptype);
     if ( tgptype != 0 ) tgptype = pdg::GeantToPdg(tgptype);
   } else if ( pcodes != 1 ) {
     // flag as unknown state ...
     LOG("Flux", pNOTICE)
       << "ConvertPartCodes saw pcodes flag as " << pcodes;
   }
 
 }

int GNuMIFluxPassThroughInfo::getProcessID ( TString sval )

Definition at line 3093 of file GNuMIFlux.cxx.

Referenced by MakeCopy().

                                                       {
   int ival=0;
   if(sval=="AntiLambdaInelastic")ival=1;
   else if(sval=="AntiNeutronInelastic")ival=2;
   else if(sval=="AntiOmegaMinusInelastic")ival=3;
   else if(sval=="AntiProtonInelastic")ival=4;
   else if(sval=="AntiSigmaMinusInelastic")ival=5;
   else if(sval=="AntiSigmaPlusInelastic")ival=6;
   else if(sval=="AntiXiMinusInelastic")ival=7;
   else if(sval=="AntiXiZeroInelastic")ival=8;
   else if(sval=="Decay")ival=9;
   else if(sval=="KaonMinusInelastic")ival=10;
   else if(sval=="KaonPlusInelastic")ival=11;
   else if(sval=="KaonZeroLInelastic")ival=12;
   else if(sval=="KaonZeroSInelastic")ival=13;
   else if(sval=="LambdaInelastic")ival=14;
   else if(sval=="NeutronInelastic")ival=15;
   else if(sval=="OmegaMinusInelastic")ival=16;
   else if(sval=="PionMinusInelastic")ival=17;
   else if(sval=="PionPlusInelastic")ival=18;
   else if(sval=="Primary")ival=19;
   else if(sval=="ProtonInelastic")ival=20;
   else if(sval=="SigmaMinusInelastic")ival=21;
   else if(sval=="SigmaPlusInelastic")ival=22;
   else if(sval=="XiMinusInelastic")ival=23;
   else if(sval=="XiZeroInelastic")ival=24;
   else if(sval=="hElastic")ival=25;
   return ival;
 }

int GNuMIFluxPassThroughInfo::getVolID ( TString sval )

Definition at line 2912 of file GNuMIFlux.cxx.

Referenced by MakeCopy().

                                                   {
   int ival=0;
   if(sval=="AddedLV")ival=1;
   else if(sval=="AlTube1LV")ival=2;
   else if(sval=="AlTube2LV")ival=3;
   else if(sval=="Al_BLK1")ival=4;
   else if(sval=="Al_BLK2")ival=5;
   else if(sval=="Al_BLK3")ival=6;
   else if(sval=="Al_BLK4")ival=7;
   else if(sval=="Al_BLK5")ival=8;
   else if(sval=="Al_BLK6")ival=9;
   else if(sval=="Al_BLK7")ival=10;
   else if(sval=="Al_BLK8")ival=11;
   else if(sval=="AlholeL")ival=12;
   else if(sval=="AlholeR")ival=13;
   else if(sval=="BEndLV")ival=14;
   else if(sval=="BFrontLV")ival=15;
   else if(sval=="BeDWLV")ival=16;
   else if(sval=="BeUp1LV")ival=17;
   else if(sval=="BeUp2LV")ival=18;
   else if(sval=="BeUp3LV")ival=19;
   else if(sval=="BodyLV")ival=20;
   else if(sval=="BudalMonitor")ival=21;
   else if(sval=="CLid1LV")ival=22;
   else if(sval=="CLid2LV")ival=23;
   else if(sval=="CShld_BLK11")ival=24;
   else if(sval=="CShld_BLK12")ival=25;
   else if(sval=="CShld_BLK2")ival=26;
   else if(sval=="CShld_BLK3")ival=27;
   else if(sval=="CShld_BLK4")ival=28;
   else if(sval=="CShld_BLK7")ival=29;
   else if(sval=="CShld_BLK8")ival=30;
   else if(sval=="CShld_stl,BLK")ival=31;
   else if(sval=="CerTubeLV")ival=32;
   else if(sval=="CeramicRod")ival=33;
   else if(sval=="ConcShield")ival=34;
   else if(sval=="Concrete Chase Section")ival=35;
   else if(sval=="Conn1LV")ival=36;
   else if(sval=="Conn2LV")ival=37;
   else if(sval=="Conn3LV")ival=38;
   else if(sval=="DNWN")ival=39;
   else if(sval=="DPIP")ival=40;
   else if(sval=="DVOL")ival=41;
   else if(sval=="DuratekBlock")ival=42;
   else if(sval=="DuratekBlockCovering")ival=43;
   else if(sval=="HadCell")ival=44;
   else if(sval=="HadronAbsorber")ival=45;
   else if(sval=="MuMonAlcvFill_0")ival=46;
   else if(sval=="MuMonAlcv_0")ival=47;
   else if(sval=="MuMonAlcv_1")ival=48;
   else if(sval=="MuMonAlcv_2")ival=49;
   else if(sval=="MuMon_0")ival=50;
   else if(sval=="MuMon_1")ival=51;
   else if(sval=="MuMon_2")ival=52;
   else if(sval=="PHorn1CPB1slv")ival=53;
   else if(sval=="PHorn1CPB2slv")ival=54;
   else if(sval=="PHorn1F")ival=55;
   else if(sval=="PHorn1Front")ival=56;
   else if(sval=="PHorn1IC")ival=57;
   else if(sval=="PHorn1InsRingslv")ival=58;
   else if(sval=="PHorn1OC")ival=59;
   else if(sval=="PHorn2CPB1slv")ival=60;
   else if(sval=="PHorn2CPB2slv")ival=61;
   else if(sval=="PHorn2F")ival=62;
   else if(sval=="PHorn2Front")ival=63;
   else if(sval=="PHorn2IC")ival=64;
   else if(sval=="PHorn2InsRingslv")ival=65;
   else if(sval=="PHorn2OC")ival=66;
   else if(sval=="PVHadMon")ival=67;
   else if(sval=="Pipe1")ival=68;
   else if(sval=="Pipe1_water")ival=69;
   else if(sval=="Pipe2")ival=70;
   else if(sval=="Pipe2_water")ival=71;
   else if(sval=="Pipe3")ival=72;
   else if(sval=="Pipe3_water")ival=73;
   else if(sval=="Pipe4")ival=74;
   else if(sval=="Pipe4_water")ival=75;
   else if(sval=="Pipe5")ival=76;
   else if(sval=="Pipe5_water")ival=77;
   else if(sval=="Pipe6")ival=78;
   else if(sval=="Pipe6_water")ival=79;
   else if(sval=="Pipe7")ival=80;
   else if(sval=="Pipe8")ival=81;
   else if(sval=="Pipe8_water")ival=82;
   else if(sval=="Pipe9")ival=83;
   else if(sval=="PipeAdapter1")ival=84;
   else if(sval=="PipeAdapter1_water")ival=85;
   else if(sval=="PipeAdapter2")ival=86;
   else if(sval=="PipeAdapter2_water")ival=87;
   else if(sval=="PipeBellowB")ival=88;
   else if(sval=="PipeBellowB_water")ival=89;
   else if(sval=="PipeBellowT")ival=90;
   else if(sval=="PipeBellowT_water")ival=91;
   else if(sval=="PipeC1")ival=92;
   else if(sval=="PipeC1_water")ival=93;
   else if(sval=="PipeC2")ival=94;
   else if(sval=="PipeC2_water")ival=95;
   else if(sval=="ROCK")ival=96;
   else if(sval=="Ring1LV")ival=97;
   else if(sval=="Ring2LV")ival=98;
   else if(sval=="Ring3LV")ival=99;
   else if(sval=="Ring4LV")ival=100;
   else if(sval=="Ring5LV")ival=101;
   else if(sval=="SC01")ival=102;
   else if(sval=="SpiderSupport")ival=103;
   else if(sval=="Stl_BLK1")ival=104;
   else if(sval=="Stl_BLK10")ival=105;
   else if(sval=="Stl_BLK2")ival=106;
   else if(sval=="Stl_BLK3")ival=107;
   else if(sval=="Stl_BLK4")ival=108;
   else if(sval=="Stl_BLK5")ival=109;
   else if(sval=="Stl_BLK6")ival=110;
   else if(sval=="Stl_BLK7")ival=111;
   else if(sval=="Stl_BLK8")ival=112;
   else if(sval=="Stl_BLK9")ival=113;
   else if(sval=="Stlhole")ival=114;
   else if(sval=="TGAR")ival=115;
   else if(sval=="TGT1")ival=116;
   else if(sval=="TGTExitCyl2LV")ival=117;
   else if(sval=="TUNE")ival=118;
   else if(sval=="Tube1aLV")ival=119;
   else if(sval=="Tube1bLV")ival=120;
   else if(sval=="UpWn1")ival=121;
   else if(sval=="UpWn2")ival=122;
   else if(sval=="UpWnAl1SLV")ival=123;
   else if(sval=="UpWnAl2SLV")ival=124;
   else if(sval=="UpWnAl3SLV")ival=125;
   else if(sval=="UpWnFe1SLV")ival=126;
   else if(sval=="UpWnFe2SLV")ival=127;
   else if(sval=="UpWnPolyCone")ival=128;
   else if(sval=="blu_BLK25")ival=129;
   else if(sval=="blu_BLK26")ival=130;
   else if(sval=="blu_BLK27")ival=131;
   else if(sval=="blu_BLK28")ival=132;
   else if(sval=="blu_BLK29")ival=133;
   else if(sval=="blu_BLK32")ival=134;
   else if(sval=="blu_BLK37")ival=135;
   else if(sval=="blu_BLK38")ival=136;
   else if(sval=="blu_BLK39")ival=137;
   else if(sval=="blu_BLK40")ival=138;
   else if(sval=="blu_BLK45")ival=139;
   else if(sval=="blu_BLK46")ival=140;
   else if(sval=="blu_BLK47")ival=141;
   else if(sval=="blu_BLK48")ival=142;
   else if(sval=="blu_BLK49")ival=143;
   else if(sval=="blu_BLK50")ival=144;
   else if(sval=="blu_BLK51")ival=145;
   else if(sval=="blu_BLK53")ival=146;
   else if(sval=="blu_BLK55")ival=147;
   else if(sval=="blu_BLK57")ival=148;
   else if(sval=="blu_BLK59")ival=149;
   else if(sval=="blu_BLK61")ival=150;
   else if(sval=="blu_BLK63")ival=151;
   else if(sval=="blu_BLK64")ival=152;
   else if(sval=="blu_BLK65")ival=153;
   else if(sval=="blu_BLK66")ival=154;
   else if(sval=="blu_BLK67")ival=155;
   else if(sval=="blu_BLK68")ival=156;
   else if(sval=="blu_BLK69")ival=157;
   else if(sval=="blu_BLK70")ival=158;
   else if(sval=="blu_BLK72")ival=159;
   else if(sval=="blu_BLK73")ival=160;
   else if(sval=="blu_BLK75")ival=161;
   else if(sval=="blu_BLK77")ival=162;
   else if(sval=="blu_BLK78")ival=163;
   else if(sval=="blu_BLK79")ival=164;
   else if(sval=="blu_BLK81")ival=165;
   else if(sval=="conc_BLK")ival=166;
   else if(sval=="pvBaffleMother")ival=167;
   else if(sval=="pvDPInnerTrackerTube")ival=168;
   else if(sval=="pvMHorn1Mother")ival=169;
   else if(sval=="pvMHorn2Mother")ival=170;
   else if(sval=="pvTargetMother")ival=171;
   else if(sval=="stl_slab1")ival=172;
   else if(sval=="stl_slab4")ival=173;
   else if(sval=="stl_slab5")ival=174;
   else if(sval=="stl_slabL")ival=175;
   else if(sval=="stl_slabR")ival=176;
   return ival;
 }

void GNuMIFluxPassThroughInfo::MakeCopy ( const g3numi * g3 )

pull in from g3 ntuple

Definition at line 1476 of file GNuMIFlux.cxx.

References g3numi::beampx, beampx, g3numi::beampy, beampy, g3numi::beampz, beampz, g3numi::beamx, beamx, g3numi::beamy, beamy, g3numi::beamz, beamz, g3numi::evtno, evtno, g3numi::mupare, mupare, g3numi::muparpx, muparpx, g3numi::muparpy, muparpy, g3numi::muparpz, muparpz, g3numi::Ndecay, ndecay, g3numi::Ndxdz, ndxdz, g3numi::Ndxdzfar, ndxdzfar, g3numi::Ndxdznea, ndxdznea, g3numi::Ndydz, ndydz, g3numi::Ndydzfar, ndydzfar, g3numi::Ndydznea, ndydznea, g3numi::Necm, necm, g3numi::Nenergy, nenergy, g3numi::Nenergyf, nenergyf, g3numi::Nenergyn, nenergyn, g3numi::Nimpwt, nimpwt, g3numi::Norig, norig, g3numi::Npz, npz, g3numi::Ntype, ntype, g3numi::Nwtfar, nwtfar, g3numi::Nwtnear, nwtnear, g3numi::pdpx, pdpx, g3numi::pdpy, pdpy, g3numi::pdpz, pdpz, g3numi::ppdxdz, ppdxdz, g3numi::ppdydz, ppdydz, g3numi::ppenergy, ppenergy, g3numi::ppmedium, ppmedium, g3numi::pppz, pppz, g3numi::ppvx, ppvx, g3numi::ppvy, ppvy, g3numi::ppvz, ppvz, g3numi::ptype, ptype, g3numi::run, run, g3numi::tgen, tgen, g3numi::tgppx, tgppx, g3numi::tgppy, tgppy, g3numi::tgppz, tgppz, g3numi::tgptype, tgptype, g3numi::tprivx, tprivx, g3numi::tprivy, tprivy, g3numi::tprivz, tprivz, g3numi::tptype, tptype, g3numi::tpx, tpx, g3numi::tpy, tpy, g3numi::tpz, tpz, g3numi::tvx, tvx, g3numi::tvy, tvy, g3numi::tvz, tvz, g3numi::Vx, vx, g3numi::Vy, vy, g3numi::Vz, vz, g3numi::xpoint, xpoint, g3numi::ypoint, ypoint, g3numi::zpoint, and zpoint.

 {
   run      = g3->run;
   evtno    = g3->evtno;
   ndxdz    = g3->Ndxdz;
   ndydz    = g3->Ndydz;
   npz      = g3->Npz;
   nenergy  = g3->Nenergy;
   ndxdznea = g3->Ndxdznea;
   ndydznea = g3->Ndydznea;
   nenergyn = g3->Nenergyn;
   nwtnear  = g3->Nwtnear;
   ndxdzfar = g3->Ndxdzfar;
   ndydzfar = g3->Ndydzfar;
   nenergyf = g3->Nenergyf;
   nwtfar   = g3->Nwtfar;
   norig    = g3->Norig;
   ndecay   = g3->Ndecay;
   ntype    = g3->Ntype;
   vx       = g3->Vx;
   vy       = g3->Vy;
   vz       = g3->Vz;
   pdpx     = g3->pdpx;
   pdpy     = g3->pdpy;
   pdpz     = g3->pdpz;
   ppdxdz   = g3->ppdxdz;
   ppdydz   = g3->ppdydz;
   pppz     = g3->pppz;
   ppenergy = g3->ppenergy;
   ppmedium = g3->ppmedium;
   ptype    = g3->ptype;
   ppvx     = g3->ppvx;
   ppvy     = g3->ppvy;
   ppvz     = g3->ppvz;
   muparpx  = g3->muparpx;
   muparpy  = g3->muparpy;
   muparpz  = g3->muparpz;
   mupare   = g3->mupare;
 
   necm     = g3->Necm;
   nimpwt   = g3->Nimpwt;
   xpoint   = g3->xpoint;
   ypoint   = g3->ypoint;
   zpoint   = g3->zpoint;
 
   tvx      = g3->tvx;
   tvy      = g3->tvy;
   tvz      = g3->tvz;
   tpx      = g3->tpx;
   tpy      = g3->tpy;
   tpz      = g3->tpz;
   tptype   = g3->tptype;
   tgen     = g3->tgen;
   tgptype  = g3->tgptype;
   tgppx    = g3->tgppx;
   tgppy    = g3->tgppy;
   tgppz    = g3->tgppz;
   tprivx   = g3->tprivx;
   tprivy   = g3->tprivy;
   tprivz   = g3->tprivz;
   beamx    = g3->beamx;
   beamy    = g3->beamy;
   beamz    = g3->beamz;
   beampx   = g3->beampx;
   beampy   = g3->beampy;
   beampz   = g3->beampz;
 
 }

void GNuMIFluxPassThroughInfo::MakeCopy ( const g4numi * g4 )

pull in from g4 ntuple

Definition at line 1546 of file GNuMIFlux.cxx.

References beampx, beampy, beampz, beamx, beamy, beamz, g4numi::evtno, evtno, g4numi::fvol, fvol, getProcessID(), getVolID(), g4numi::ivol, ivol, MAX_N_TRAJ, g4numi::mupare, mupare, g4numi::muparpx, muparpx, g4numi::muparpy, muparpy, g4numi::muparpz, muparpz, g4numi::Ndecay, ndecay, g4numi::Ndxdz, ndxdz, g4numi::NdxdzFar, ndxdzfar, ndxdznea, g4numi::NdxdzNear, g4numi::Ndydz, ndydz, g4numi::NdydzFar, ndydzfar, ndydznea, g4numi::NdydzNear, g4numi::Necm, necm, g4numi::Nenergy, nenergy, g4numi::NenergyF, nenergyf, g4numi::NenergyN, nenergyn, g4numi::Nimpwt, nimpwt, g4numi::Norig, norig, g4numi::Npz, npz, g4numi::ntrajectory, ntrajectory, g4numi::Ntype, ntype, g4numi::NWtFar, nwtfar, g4numi::NWtNear, nwtnear, g4numi::overflow, overflow, g4numi::parentId, parentId, g4numi::pdg, pdgcode, g4numi::pdPx, pdpx, g4numi::pdPy, pdpy, g4numi::pdPz, pdpz, g4numi::ppdxdz, ppdxdz, g4numi::ppdydz, ppdydz, g4numi::ppenergy, ppenergy, g4numi::ppmedium, ppmedium, g4numi::pppz, pppz, g4numi::pprodpx, pprodpx, g4numi::pprodpy, pprodpy, g4numi::pprodpz, pprodpz, g4numi::ppvx, ppvx, g4numi::ppvy, ppvy, g4numi::ppvz, ppvz, g4numi::proc, proc, g4numi::ptype, ptype, g4numi::run, run, g4numi::startpx, startpx, g4numi::startpy, startpy, g4numi::startpz, startpz, g4numi::startx, startx, g4numi::starty, starty, g4numi::startz, startz, g4numi::stoppx, stoppx, g4numi::stoppy, stoppy, g4numi::stoppz, stoppz, g4numi::stopx, stopx, g4numi::stopy, stopy, g4numi::stopz, stopz, g4numi::tgen, tgen, tgppx, tgppy, tgppz, tgptype, tprivx, tprivy, tprivz, g4numi::tptype, tptype, g4numi::tpx, tpx, g4numi::tpy, tpy, g4numi::tpz, tpz, g4numi::trackId, trackId, g4numi::tvx, tvx, g4numi::tvy, tvy, g4numi::tvz, tvz, g4numi::Vx, vx, g4numi::Vy, vy, g4numi::Vz, vz, g4numi::xpoint, xpoint, g4numi::ypoint, ypoint, g4numi::zpoint, and zpoint.

 {
 
   const int kNearIndx = 0;
   const int kFarIndx  = 0;
 
   run      = g4->run;
   evtno    = g4->evtno;
   ndxdz    = g4->Ndxdz;
   ndydz    = g4->Ndydz;
   npz      = g4->Npz;
   nenergy  = g4->Nenergy;
   ndxdznea = g4->NdxdzNear[kNearIndx];
   ndydznea = g4->NdydzNear[kNearIndx];
   nenergyn = g4->NenergyN[kNearIndx];
   nwtnear  = g4->NWtNear[kNearIndx];
   ndxdzfar = g4->NdxdzFar[kFarIndx];
   ndydzfar = g4->NdydzFar[kFarIndx];
   nenergyf = g4->NenergyF[kFarIndx];
   nwtfar   = g4->NWtFar[kFarIndx];
   norig    = g4->Norig;
   ndecay   = g4->Ndecay;
   ntype    = g4->Ntype;
   vx       = g4->Vx;
   vy       = g4->Vy;
   vz       = g4->Vz;
   pdpx     = g4->pdPx;
   pdpy     = g4->pdPy;
   pdpz     = g4->pdPz;
   ppdxdz   = g4->ppdxdz;
   ppdydz   = g4->ppdydz;
   pppz     = g4->pppz;
   ppenergy = g4->ppenergy;
   ppmedium = (Int_t)g4->ppmedium;  // int in g3, double in g4!
   ptype    = g4->ptype;
   ppvx     = g4->ppvx;
   ppvy     = g4->ppvy;
   ppvz     = g4->ppvz;
   muparpx  = g4->muparpx;
   muparpy  = g4->muparpy;
   muparpz  = g4->muparpz;
   mupare   = g4->mupare;
 
   necm     = g4->Necm;
   nimpwt   = g4->Nimpwt;
   xpoint   = g4->xpoint;
   ypoint   = g4->ypoint;
   zpoint   = g4->zpoint;
 
   tvx      = g4->tvx;
   tvy      = g4->tvy;
   tvz      = g4->tvz;
   tpx      = g4->tpx;
   tpy      = g4->tpy;
   tpz      = g4->tpz;
   tptype   = g4->tptype;
   tgen     = g4->tgen;
   tgptype  = 0 ;  // no equivalent in g4
   tgppx    = 0.;
   tgppy    = 0.;
   tgppz    = 0.;
   tprivx   = 0.;
   tprivy   = 0.;
   tprivz   = 0.;
   beamx    = 0.; // g4->protonX;
   beamy    = 0.; // g4->protonY;
   beamz    = 0.; // g4->protonZ;
   beampx   = 0.; // g4->protonPx;
   beampy   = 0.; // g4->protonPy;
   beampz   = 0.; // g4->protonPz;
 
 #ifndef SKIP_MINERVA_MODS
   //=========================================
   // The following was inserted by MINERvA
   //=========================================
   ntrajectory = g4->ntrajectory;
   overflow    = g4->overflow;
   // Limit number of trajectories to MAX_N_TRAJ
   Int_t ntraj = ntrajectory;
   if ( overflow )
     ntraj = MAX_N_TRAJ;
 
   for ( Int_t ic = 0; ic < ntraj; ++ic ) {
     pdgcode[ic]  = g4->pdg[ic];
     trackId[ic]  = g4->trackId[ic];
     parentId[ic] = g4->parentId[ic];
 
     startx[ic]   = g4->startx[ic];
     starty[ic]   = g4->starty[ic];
     startz[ic]   = g4->startz[ic];
     stopx[ic]    = g4->stopx[ic];
     stopy[ic]    = g4->stopy[ic];
     stopz[ic]    = g4->stopz[ic];
     startpx[ic]  = g4->startpx[ic];
     startpy[ic]  = g4->startpy[ic];
     startpz[ic]  = g4->startpz[ic];
     stoppx[ic]   = g4->stoppx[ic];
     stoppy[ic]   = g4->stoppy[ic];
     stoppz[ic]   = g4->stoppz[ic];
     pprodpx[ic]  = g4->pprodpx[ic];
     pprodpy[ic]  = g4->pprodpy[ic];
     pprodpz[ic]  = g4->pprodpz[ic];
 
     proc[ic] =  getProcessID(g4->proc[ic]);
     ivol[ic] =  getVolID(g4->ivol[ic]);
     fvol[ic] =  getVolID(g4->fvol[ic]);
   }
   //END of minerva additions
 #endif
 
 }

void GNuMIFluxPassThroughInfo::MakeCopy ( const flugg * f )

pull in from flugg ntuple

Definition at line 1659 of file GNuMIFlux.cxx.

References flugg::beampx, beampx, flugg::beampy, beampy, flugg::beampz, beampz, flugg::beamx, beamx, flugg::beamy, beamy, flugg::beamz, beamz, flugg::evtno, evtno, flugg::mupare, mupare, flugg::muparpx, muparpx, flugg::muparpy, muparpy, flugg::muparpz, muparpz, flugg::Ndecay, ndecay, flugg::Ndxdz, ndxdz, flugg::Ndxdzfar, ndxdzfar, flugg::Ndxdznea, ndxdznea, flugg::Ndydz, ndydz, flugg::Ndydzfar, ndydzfar, flugg::Ndydznea, ndydznea, flugg::Necm, necm, flugg::Nenergy, nenergy, flugg::Nenergyf, nenergyf, flugg::Nenergyn, nenergyn, flugg::Nimpwt, nimpwt, flugg::Norig, norig, flugg::Npz, npz, flugg::Ntype, ntype, flugg::Nwtfar, nwtfar, flugg::Nwtnear, nwtnear, flugg::pdPx, pdpx, flugg::pdPy, pdpy, flugg::pdPz, pdpz, flugg::ppdxdz, ppdxdz, flugg::ppdydz, ppdydz, flugg::ppenergy, ppenergy, flugg::ppmedium, ppmedium, flugg::pppz, pppz, flugg::ppvx, ppvx, flugg::ppvy, ppvy, flugg::ppvz, ppvz, flugg::ptype, ptype, flugg::run, run, flugg::tgen, tgen, flugg::tgppx, tgppx, flugg::tgppy, tgppy, flugg::tgppz, tgppz, flugg::tgptype, tgptype, flugg::tprivx, tprivx, flugg::tprivy, tprivy, flugg::tprivz, tprivz, flugg::tptype, tptype, flugg::tpx, tpx, flugg::tpy, tpy, flugg::tpz, tpz, flugg::tvx, tvx, flugg::tvy, tvy, flugg::tvz, tvz, flugg::Vx, vx, flugg::Vy, vy, flugg::Vz, vz, flugg::xpoint, xpoint, flugg::ypoint, ypoint, flugg::zpoint, and zpoint.

 {
   run      = f->run;
   evtno    = f->evtno;
   ndxdz    = f->Ndxdz;
   ndydz    = f->Ndydz;
   npz      = f->Npz;
   nenergy  = f->Nenergy;
   ndxdznea = f->Ndxdznea;
   ndydznea = f->Ndydznea;
   nenergyn = f->Nenergyn;
   nwtnear  = f->Nwtnear;
   ndxdzfar = f->Ndxdzfar;
   ndydzfar = f->Ndydzfar;
   nenergyf = f->Nenergyf;
   nwtfar   = f->Nwtfar;
   norig    = f->Norig;
   ndecay   = f->Ndecay;
   ntype    = f->Ntype;
   vx       = f->Vx;
   vy       = f->Vy;
   vz       = f->Vz;
   pdpx     = f->pdPx;
   pdpy     = f->pdPy;
   pdpz     = f->pdPz;
   ppdxdz   = f->ppdxdz;
   ppdydz   = f->ppdydz;
   pppz     = f->pppz;
   ppenergy = f->ppenergy;
   ppmedium = f->ppmedium;
   ptype    = f->ptype;
   ppvx     = f->ppvx;
   ppvy     = f->ppvy;
   ppvz     = f->ppvz;
   muparpx  = f->muparpx;
   muparpy  = f->muparpy;
   muparpz  = f->muparpz;
   mupare   = f->mupare;
 
   necm     = f->Necm;
   nimpwt   = f->Nimpwt;
   xpoint   = f->xpoint;
   ypoint   = f->ypoint;
   zpoint   = f->zpoint;
 
   tvx      = f->tvx;
   tvy      = f->tvy;
   tvz      = f->tvz;
   tpx      = f->tpx;
   tpy      = f->tpy;
   tpz      = f->tpz;
   tptype   = f->tptype;
   tgen     = f->tgen;
   tgptype  = f->tgptype;
   tgppx    = f->tgppx;
   tgppy    = f->tgppy;
   tgppz    = f->tgppz;
   tprivx   = f->tprivx;
   tprivy   = f->tprivy;
   tprivz   = f->tprivz;
   beamx    = f->beamx;
   beamy    = f->beamy;
   beamz    = f->beamz;
   beampx   = f->beampx;
   beampy   = f->beampy;
   beampz   = f->beampz;
 
 }

void GNuMIFluxPassThroughInfo::Print ( const Option_t * opt = "" ) const

Definition at line 1470 of file GNuMIFlux.cxx.

 {
   std::cout << *this << std::endl;
 }

void GNuMIFluxPassThroughInfo::ResetCopy ( )

Definition at line 1256 of file GNuMIFlux.cxx.

References beampx, beampy, beampz, beamx, beamy, beamz, evtno, fvol, ivol, MAX_N_TRAJ, mupare, muparpx, muparpy, muparpz, ndecay, ndxdz, ndxdzfar, ndxdznea, ndydz, ndydzfar, ndydznea, necm, nenergy, nenergyf, nenergyn, nimpwt, norig, npz, ntrajectory, ntype, nwtfar, nwtnear, overflow, parentId, pcodes, pdgcode, pdpx, pdpy, pdpz, ppdxdz, ppdydz, ppenergy, ppmedium, pppz, pprodpx, pprodpy, pprodpz, ppvx, ppvy, ppvz, proc, ptype, run, startpx, startpy, startpz, startx, starty, startz, stoppx, stoppy, stoppz, stopx, stopy, stopz, tgen, tgppx, tgppy, tgppz, tgptype, tprivx, tprivy, tprivz, tptype, tpx, tpy, tpz, trackId, tvx, tvy, tvz, units, vx, vy, vz, xpoint, ypoint, and zpoint.

Referenced by GNuMIFluxPassThroughInfo().

 {
   pcodes   = -1;
   units    = -1;
 
   run      = -1;
   evtno    = -1;
   ndxdz    = 0.;
   ndydz    = 0.;
   npz      = 0.;
   nenergy  = 0.;
   ndxdznea = 0.;
   ndydznea = 0.;
   nenergyn = 0.;
   nwtnear  = 0.;
   ndxdzfar = 0.;
   ndydzfar = 0.;
   nenergyf = 0.;
   nwtfar   = 0.;
   norig    = 0;
   ndecay   = 0;
   ntype    = 0;
   vx       = 0.;
   vy       = 0.;
   vz       = 0.;
   pdpx     = 0.;
   pdpy     = 0.;
   pdpz     = 0.;
   ppdxdz   = 0.;
   ppdydz   = 0.;
   pppz     = 0.;
   ppenergy = 0.;
   ppmedium = 0 ;
   ptype    = 0 ;
   ppvx     = 0.;
   ppvy     = 0.;
   ppvz     = 0.;
   muparpx  = 0.;
   muparpy  = 0.;
   muparpz  = 0.;
   mupare   = 0.;
   necm     = 0.;
   nimpwt   = 0.;
   xpoint   = 0.;
   ypoint   = 0.;
   zpoint   = 0.;
   tvx      = 0.;
   tvy      = 0.;
   tvz      = 0.;
   tpx      = 0.;
   tpy      = 0.;
   tpz      = 0.;
   tptype   = 0 ;
   tgen     = 0 ;
   tgptype  = 0 ;
   tgppx    = 0.;
   tgppy    = 0.;
   tgppz    = 0.;
   tprivx   = 0.;
   tprivy   = 0.;
   tprivz   = 0.;
   beamx    = 0.;
   beamy    = 0.;
   beamz    = 0.;
   beampx   = 0.;
   beampy   = 0.;
   beampz   = 0.;
 
 #ifndef SKIP_MINERVA_MODS
   //=========================================
   // The following was inserted by MINERvA
   //=========================================
   ntrajectory = 0;
   overflow    = false;
 
   for ( unsigned int itclear = 0; itclear < MAX_N_TRAJ; itclear++ ) {
      pdgcode[itclear]  = 0;
      trackId[itclear]  = 0;
      parentId[itclear] = 0;
      proc[itclear]     = 0;
      ivol[itclear]     = 0;
      fvol[itclear]     = 0;
      startx[itclear]   = 0;
      starty[itclear]   = 0;
      startz[itclear]   = 0;
      startpx[itclear]  = 0;
      startpy[itclear]  = 0;
      startpz[itclear]  = 0;
      stopx[itclear]    = 0;
      stopy[itclear]    = 0;
      stopz[itclear]    = 0;
      stoppx[itclear]   = 0;
      stoppy[itclear]   = 0;
      stoppz[itclear]   = 0;
      pprodpx[itclear]  = 0;
      pprodpy[itclear]  = 0;
      pprodpz[itclear]  = 0;
   }
   //END of minerva additions
 #endif
 }

void GNuMIFluxPassThroughInfo::ResetCurrent ( void )

Definition at line 1359 of file GNuMIFlux.cxx.

References fgP4, fgPdgC, fgX4, and fgXYWgt.

Referenced by GNuMIFluxPassThroughInfo().

 {
   // reset the state of the "generated" entry
   fgPdgC  = 0;
   fgXYWgt = 0;
   fgP4.SetPxPyPzE(0.,0.,0.,0.);
   fgX4.SetXYZT(0.,0.,0.,0.);
 }

Friends And Related Function Documentation

ostream& operator<<	(	ostream &	stream,
		const GNuMIFluxPassThroughInfo &	info
	)

friend

Definition at line 2053 of file GNuMIFlux.cxx.

     {
       // stream << "\n ndecay   = " << info.ndecay << std::endl;
       stream << "\nGNuMIFlux run " << info.run << " evtno " << info.evtno
              << " (pcodes " << info.pcodes << " units " << info.units << ")"
              << "\n random dk: dx/dz " << info.ndxdz
              << " dy/dz " << info.ndydz
              << " pz " <<  info.npz << " E " << info.nenergy
              << "\n near00 dk: dx/dz " << info.ndxdznea
              << " dy/dz " << info.ndydznea
              << " E " <<  info.nenergyn << " wgt " << info.nwtnear
              << "\n far00  dk: dx/dz " << info.ndxdzfar
              << " dy/dz " << info.ndydzfar
              << " E " <<  info.nenergyf << " wgt " << info.nwtfar
              << "\n norig " << info.norig << " ndecay " << info.ndecay
              << " ntype " << info.ntype
              << "\n had vtx " << info.vx << " " << info.vy << " " << info.vz
              << "\n parent p3 @ dk " << info.pdpx << " " << info.pdpy << " " << info.pdpz
              << "\n parent prod: dx/dz " << info.ppdxdz
              << " dy/dz " << info.ppdydz
              << " pz " << info.pppz << " E " << info.ppenergy
              << "\n ppmedium " << info.ppmedium << " ptype " << info.ptype
              << " ppvtx " << info.ppvx << " " << info.ppvy << " " << info.ppvz
              << "\n mu parent p4 " << info.muparpx << " " << info.muparpy
              << " " << info.muparpz << " " << info.mupare
              << "\n necm " << info.necm << " nimpwt " << info.nimpwt
              << "\n point x,y,z " << info.xpoint << " " << info.ypoint
              << " " << info.zpoint
              << "\n tv x,y,z " << info.tvx << " " << info.tvy << " " << info.tvz
              << "\n tptype " << info.tptype << " tgen " << info.tgen
              << " tgptype " << info.tgptype
              << "\n tgp px,py,pz " << info.tgppx << " " << info.tgppy
              << " " << info.tgppz
              << "\n tpriv x,y,z " << info.tprivx << " " << info.tprivy
              << " " << info.tprivz
              << "\n beam x,y,z " << info.beamx << " " << info.beamy
              << " " << info.beamz
              << "\n beam px,py,pz " << info.beampx << " " << info.beampy
              << " " << info.beampz
         ;
 
 #ifndef SKIP_MINERVA_MODS
       //=========================================
       // The following was inserted by MINERvA
       //=========================================
       stream << "\nNeutrino History : ntrajectories " << info.ntrajectory
              << "\n (trkID, pdg) of nu parents: [";
       Int_t ntraj = info.ntrajectory;
       if ( info.overflow ) ntraj = GNuMIFluxPassThroughInfo::MAX_N_TRAJ;
 
       for ( Int_t itt = 0; itt < ntraj; ++itt )
         stream << "(" << info.trackId[itt-1] << ", " << info.pdgcode[itt] << ") ";
       stream << "]\n";
       //END of minerva additions
 #endif
 
       stream << "\nCurrent: pdg " << info.fgPdgC
              << " xywgt " << info.fgXYWgt
              << "\n p4 (beam): " << utils::print::P4AsShortString(&info.fgP4)
              << "\n x4 (beam): " << utils::print::X4AsString(&info.fgX4)
              << "\n p4 (user): " << utils::print::P4AsShortString(&info.fgP4User)
              << "\n x4 (user): " << utils::print::X4AsString(&info.fgX4User);
         ;
 #ifdef GNUMI_TEST_XY_WGT
       stream << "\n" << xypartials::GetStaticInstance();
 #endif
 
 
   /*
   //std::cout << "GNuMIFlux::PrintCurrent ....." << std::endl;
   //LOG("Flux", pINFO)
   LOG("Flux", pNOTICE)
     << "Current Leaf Values: "
     << " run " << fLf_run << " evtno " << fLf_evtno << "\n"
     << " NenergyN " << fLf_NenergyN << " NWtNear " << fLf_NWtNear
     << " NenergyF " << fLf_NenergyF << " NWtFar  " << fLf_NWtFar << "\n"
     << " Norig " << fLf_Norig << " Ndecay " << fLf_Ndecay << " Ntype " << fLf_Ntype << "\n"
     << " Vxyz " << fLf_Vx << " " << fLf_Vy << " " << fLf_Vz
     << " pdPxyz " << fLf_pdPx << " " << fLf_pdPy << " " << fLf_pdPz << "\n"
     << " pp dxdz " << fLf_ppdxdz << " dydz " << fLf_ppdydz << " pz " << fLf_pppz << "\n"
     << " pp energy " << fLf_ppenergy << " medium " << fLf_ppmedium
     << " ptype " << fLf_ptype
     << " ppvxyz " << fLf_ppvx << " " << fLf_ppvy << " " << fLf_ppvz << "\n"
     << " muparpxyz " << fLf_muparpx << " " << fLf_muparpy << " " << fLf_muparpz
     << " mupare " << fLf_mupare << "\n"
     << ;
   */
 
      return stream;
   }

Member Data Documentation

Double_t genie::flux::GNuMIFluxPassThroughInfo::beampx

Definition at line 169 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::beampy

Definition at line 170 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::beampz

Definition at line 171 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::beamx

Definition at line 166 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::beamy

Definition at line 167 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::beamz

Definition at line 168 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::evtno

Definition at line 111 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

TLorentzVector genie::flux::GNuMIFluxPassThroughInfo::fgP4

generated nu 4-momentum beam coord

Definition at line 102 of file GNuMIFlux.h.

Referenced by genie::flux::operator<<(), and ResetCurrent().

TLorentzVector genie::flux::GNuMIFluxPassThroughInfo::fgP4User

generated nu 4-momentum user coord

Definition at line 104 of file GNuMIFlux.h.

Referenced by genie::flux::GNuMIFlux::Momentum(), and genie::flux::operator<<().

int genie::flux::GNuMIFluxPassThroughInfo::fgPdgC

generated nu pdg-code

Definition at line 98 of file GNuMIFlux.h.

Referenced by genie::flux::operator<<(), genie::flux::GNuMIFlux::PdgCode(), and ResetCurrent().

TLorentzVector genie::flux::GNuMIFluxPassThroughInfo::fgX4

generated nu 4-position beam coord

Definition at line 103 of file GNuMIFlux.h.

Referenced by genie::flux::operator<<(), and ResetCurrent().

TLorentzVector genie::flux::GNuMIFluxPassThroughInfo::fgX4User

generated nu 4-position user coord

Definition at line 105 of file GNuMIFlux.h.

Referenced by genie::flux::operator<<(), and genie::flux::GNuMIFlux::Position().

double genie::flux::GNuMIFluxPassThroughInfo::fgXYWgt

generated nu x-y weight not the same as GNuMIFlux::Weight() which include importance wgt and deweighting

Definition at line 99 of file GNuMIFlux.h.

Referenced by genie::flux::operator<<(), and ResetCurrent().

int genie::flux::GNuMIFluxPassThroughInfo::fvol[MAX_N_TRAJ]

Definition at line 206 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

int genie::flux::GNuMIFluxPassThroughInfo::ivol[MAX_N_TRAJ]

Definition at line 205 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

const unsigned int genie::flux::GNuMIFluxPassThroughInfo::MAX_N_TRAJ = 10

static

Maximum number of trajectories to store.

Definition at line 180 of file GNuMIFlux.h.

Referenced by MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::mupare

Definition at line 145 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::muparpx

Definition at line 142 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::muparpy

Definition at line 143 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::muparpz

Definition at line 144 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::ndecay

Definition at line 125 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ndxdz

Definition at line 112 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ndxdzfar

Definition at line 120 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ndxdznea

Definition at line 116 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ndydz

Definition at line 113 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ndydzfar

Definition at line 121 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ndydznea

Definition at line 117 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::necm

Definition at line 146 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::nenergy

Definition at line 115 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::nenergyf

Definition at line 122 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::nenergyn

Definition at line 118 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::nimpwt

Definition at line 147 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::norig

Definition at line 124 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::npz

Definition at line 114 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::ntrajectory

Definition at line 182 of file GNuMIFlux.h.

Referenced by MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::ntype

Definition at line 126 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertPartCodes(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::nwtfar

Definition at line 123 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::nwtnear

Definition at line 119 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Bool_t genie::flux::GNuMIFluxPassThroughInfo::overflow

Definition at line 183 of file GNuMIFlux.h.

Referenced by MakeCopy(), genie::flux::operator<<(), and ResetCopy().

int genie::flux::GNuMIFluxPassThroughInfo::parentId[MAX_N_TRAJ]

Definition at line 186 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

int genie::flux::GNuMIFluxPassThroughInfo::pcodes

Definition at line 94 of file GNuMIFlux.h.

Referenced by ConvertPartCodes(), genie::flux::operator<<(), and ResetCopy().

int genie::flux::GNuMIFluxPassThroughInfo::pdgcode[MAX_N_TRAJ]

Definition at line 184 of file GNuMIFlux.h.

Referenced by MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::pdpx

Definition at line 130 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::pdpy

Definition at line 131 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::pdpz

Definition at line 132 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ppdxdz

Definition at line 133 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ppdydz

Definition at line 134 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ppenergy

Definition at line 136 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::ppmedium

Definition at line 137 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::pppz

Definition at line 135 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::pprodpx[MAX_N_TRAJ]

Definition at line 200 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::pprodpy[MAX_N_TRAJ]

Definition at line 201 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::pprodpz[MAX_N_TRAJ]

Definition at line 202 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ppvx

Definition at line 139 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ppvy

Definition at line 140 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ppvz

Definition at line 141 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

int genie::flux::GNuMIFluxPassThroughInfo::proc[MAX_N_TRAJ]

Definition at line 204 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::ptype

Definition at line 138 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertPartCodes(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::run

Definition at line 110 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::startpx[MAX_N_TRAJ]

Definition at line 191 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::startpy[MAX_N_TRAJ]

Definition at line 192 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::startpz[MAX_N_TRAJ]

Definition at line 193 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::startx[MAX_N_TRAJ]

Definition at line 188 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::starty[MAX_N_TRAJ]

Definition at line 189 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::startz[MAX_N_TRAJ]

Definition at line 190 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::stoppx[MAX_N_TRAJ]

Definition at line 197 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::stoppy[MAX_N_TRAJ]

Definition at line 198 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::stoppz[MAX_N_TRAJ]

Definition at line 199 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::stopx[MAX_N_TRAJ]

Definition at line 194 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::stopy[MAX_N_TRAJ]

Definition at line 195 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

double genie::flux::GNuMIFluxPassThroughInfo::stopz[MAX_N_TRAJ]

Definition at line 196 of file GNuMIFlux.h.

Referenced by MakeCopy(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::tgen

Definition at line 158 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tgppx

Definition at line 160 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tgppy

Definition at line 161 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tgppz

Definition at line 162 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::tgptype

Definition at line 159 of file GNuMIFlux.h.

Referenced by ConvertPartCodes(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tprivx

Definition at line 163 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tprivy

Definition at line 164 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tprivz

Definition at line 165 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Int_t genie::flux::GNuMIFluxPassThroughInfo::tptype

Definition at line 157 of file GNuMIFlux.h.

Referenced by ConvertPartCodes(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tpx

Definition at line 154 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tpy

Definition at line 155 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tpz

Definition at line 156 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), and ResetCopy().

int genie::flux::GNuMIFluxPassThroughInfo::trackId[MAX_N_TRAJ]

Definition at line 185 of file GNuMIFlux.h.

Referenced by MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tvx

Definition at line 151 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tvy

Definition at line 152 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::tvz

Definition at line 153 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

int genie::flux::GNuMIFluxPassThroughInfo::units

Definition at line 95 of file GNuMIFlux.h.

Referenced by genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::vx

Definition at line 127 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::vy

Definition at line 128 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::vz

Definition at line 129 of file GNuMIFlux.h.

Referenced by CalcEnuWgt(), ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::xpoint

Definition at line 148 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::ypoint

Definition at line 149 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

Double_t genie::flux::GNuMIFluxPassThroughInfo::zpoint

Definition at line 150 of file GNuMIFlux.h.

Referenced by ConvertToGRooTracker(), MakeCopy(), genie::flux::operator<<(), and ResetCopy().

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

Public Member Functions

Public Attributes

Static Public Attributes

Friends

Detailed Description

GNuMIFluxPassThroughInfo:

Constructor & Destructor Documentation

Member Function Documentation

Friends And Related Function Documentation

Member Data Documentation