ANtpInfoObjectFiller Class Reference

#include <ANtpInfoObjectFiller.h>

Inheritance diagram for ANtpInfoObjectFiller:

List of all members.

Public Member Functions
	ANtpInfoObjectFiller ()
	ANtpInfoObjectFiller (Detector::Detector_t detector)
	ANtpInfoObjectFiller (TClonesArray *strips)
virtual	~ANtpInfoObjectFiller ()
void	FillHeaderInformation (ANtpRecoNtpManipulator *ntpManip, Detector::Detector_t det, SimFlag::SimFlag_t dataType, ANtpHeaderInfo *headerInfo)
void	FillEventInformation (ANtpRecoNtpManipulator *ntpManip, NtpSREvent *ntpEvent, ANtpEventInfo *eventInfo)
void	FillTrackInformation (NtpSRTrack *ntpTrack, ANtpTrackInfo *trackInfo)
void	FillShowerInformation (NtpSRShower *ntpShower, ANtpShowerInfo *showerInfo)
void	FillMCTruthInformation (NtpMCTruth *ntpMCTruth, ANtpTruthInfo *truthInfo)
void	SetDetector (Detector::Detector_t detector)
void	SetStripArray (TClonesArray *strips)
Float_t	MetersToBeam (Detector::Detector_t det, Float_t x, Float_t y, Float_t z)
Float_t	MetersToCoil (Detector::Detector_t det, Float_t x, Float_t y)
Float_t	MetersToCloseEdge (Detector::Detector_t det, Float_t x, Float_t y, Bool_t NDUseFullPlane=0)
Protected Member Functions
void	FillFiducialInformation (ANtpTrackInfo *trackInfo)
void	FillFiducialInformation (ANtpEventInfo *eventInfo)
Protected Attributes
VldContext	fVldc
TClonesArray *	fStripArray
Detector::Detector_t	fDetector
Private Member Functions
double	Sqr (double x)
int	Sqr (int x)
float	Sqr (float x)
void	GetTrackTrace (NtpSRTrack *ntpTrack, ANtpTrackInfo *trackInfo, Int_t direction)
Private Attributes
Long64_t	fRowNum

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Constructor & Destructor Documentation

ANtpInfoObjectFiller::ANtpInfoObjectFiller (   )

Definition at line 60 of file ANtpInfoObjectFiller.cxx. References MSG. : fStripArray(0), fDetector(Detector::kUnknown), fRowNum(0) { MSG("ANtpInfoObjectFiller", Msg::kDebug) << "ANtpInfoObjectFiller::Constructor" << endl; }

ANtpInfoObjectFiller::ANtpInfoObjectFiller (  Detector::Detector_t  detector  )

Definition at line 72 of file ANtpInfoObjectFiller.cxx. References MSG. : fStripArray(0), fDetector(detector), fRowNum(0) { MSG("ANtpInfoObjectFiller", Msg::kDebug) << "ANtpInfoObjectFiller::Constructor" << endl; }

ANtpInfoObjectFiller::ANtpInfoObjectFiller (  TClonesArray *  strips  )

Definition at line 84 of file ANtpInfoObjectFiller.cxx. References MSG. : fStripArray(strips), fDetector(Detector::kUnknown), fRowNum(0) { MSG("ANtpInfoObjectFiller", Msg::kDebug) << "ANtpInfoObjectFiller::Constructor" << endl; }

ANtpInfoObjectFiller::~ANtpInfoObjectFiller (   )  [virtual]

Definition at line 96 of file ANtpInfoObjectFiller.cxx. References MSG. { MSG("ANtpInfoObjectFiller", Msg::kDebug) << "ANtpInfoObjectFiller::Destructor" << endl; }

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Member Function Documentation

void ANtpInfoObjectFiller::FillEventInformation (  ANtpRecoNtpManipulator *  ntpManip, NtpSREvent *  ntpEvent, ANtpEventInfo *  eventInfo )

Definition at line 339 of file ANtpInfoObjectFiller.cxx. References NtpSRPlane::beg, ANtpEventInfo::begPlane, NtpSRPlane::end, ANtpEventInfo::endPlane, ANtpEventInfo::energyGeV, FillFiducialInformation(), fStripArray, ANtpRecoNtpManipulator::GetNtpStRecord(), ANtpRecoNtpManipulator::GetReleaseMCType(), NtpSRStripPulseHeight::gev, NtpSREvent::index, ANtpEventInfo::index, NtpSRPlane::n, NtpSREvent::nshower, NtpSREvent::nstrip, NtpSREvent::ntrack, ANtpEventInfo::passStrips, NtpSREvent::ph, NtpSRStrip::plane, NtpSREvent::plane, ANtpEventInfo::planes, ANtpEventInfo::pulseHeight, ANtpEventInfo::Reset(), ANtpEventInfo::showers, NtpSRPulseHeight::sigcor, NtpSREvent::stp, ANtpEventInfo::stripsPerPlane, NtpSRVertex::t, ANtpEventInfo::totalStrips, ANtpEventInfo::tracks, ANtpEventInfo::vertexTime, NtpSREvent::vtx, ANtpEventInfo::vtxX, ANtpEventInfo::vtxY, ANtpEventInfo::vtxZ, NtpSRVertex::x, NtpSRVertex::y, and NtpSRVertex::z. Referenced by CondensedNtpModule::Ana(), ANtpEventInfoAna::Analyze(), MadAnalysis::CreateANtpPAN(), CondensedNtpModuleAtm::FillEventInformation(), ANtpInfoObjectFillerNC::FillEventInformation(), and ANtpAnalysisInfoAna::FillNueAnalysisInformation(). { eventInfo->Reset(); eventInfo->index = static_cast <int> (ntpEvent->index); eventInfo->pulseHeight = ntpEvent->ph.sigcor; eventInfo->energyGeV = ntpEvent->ph.gev; eventInfo->begPlane = ntpEvent->plane.beg; eventInfo->endPlane = ntpEvent->plane.end; eventInfo->planes = ntpEvent->plane.n; //add up the pulse height in each plane to find the maximum in the event eventInfo->totalStrips = ntpEvent->nstrip; //write your own criterea for whether a strip is good or not eventInfo->passStrips = ntpEvent->nstrip; eventInfo->showers = ntpEvent->nshower; eventInfo->tracks = ntpEvent->ntrack; //Correct cedar vertex bug TString reco = ntpManip->GetReleaseMCType(); if(reco.Contains((ReleaseType::AsString(ReleaseType::kCedarData)).c_str()) || reco.Contains((ReleaseType::AsString(ReleaseType::kCedarCarrot)).c_str()) || reco.Contains((ReleaseType::AsString(ReleaseType::kCedarDaikon)).c_str())){ NtpVtxFinder::NtpVtxFinder vtxf; vtxf.SetTargetEvent(static_cast <int> (ntpEvent->index), ntpManip->GetNtpStRecord()); if (vtxf.FindVertex()<0){ //Take existing vertex if fix cannot be used eventInfo->vtxX = ntpEvent->vtx.x; eventInfo->vtxY = ntpEvent->vtx.y; eventInfo->vtxZ = ntpEvent->vtx.z; eventInfo->vertexTime = ntpEvent->vtx.t; } else { eventInfo->vtxX = vtxf.VtxX(); eventInfo->vtxY = vtxf.VtxY(); eventInfo->vtxZ = vtxf.VtxZ(); eventInfo->vertexTime = vtxf.VtxT(); }//if(vtxf.FindVertex()) } else { eventInfo->vtxX = ntpEvent->vtx.x; eventInfo->vtxY = ntpEvent->vtx.y; eventInfo->vtxZ = ntpEvent->vtx.z; eventInfo->vertexTime = ntpEvent->vtx.t; }//if(reco.Contains(...)) FillFiducialInformation(eventInfo); if(!fStripArray) return; //loop over the strips in the shower and record which planes they are on NtpSRStrip *strip = 0; for(int i = 0; i < eventInfo->totalStrips; ++i){ if (ntpEvent->stp[i] >= 0) strip = dynamic_cast<NtpSRStrip *> (fStripArray->At(ntpEvent->stp[i])); else continue; ++eventInfo->stripsPerPlane[strip->plane]; } return; }

void ANtpInfoObjectFiller::FillFiducialInformation (  ANtpEventInfo *  eventInfo  )  [protected]

Definition at line 512 of file ANtpInfoObjectFiller.cxx. References fDetector, MetersToBeam(), MetersToCloseEdge(), MetersToCoil(), ANtpEventInfo::vtxMetersToBeam, ANtpEventInfo::vtxMetersToCloseEdge, ANtpEventInfo::vtxMetersToCoil, ANtpEventInfo::vtxX, ANtpEventInfo::vtxY, and ANtpEventInfo::vtxZ. { double x = eventInfo->vtxX; double y = eventInfo->vtxY; double z = eventInfo->vtxZ; eventInfo->vtxMetersToBeam = MetersToBeam(fDetector, x, y, z); eventInfo->vtxMetersToCoil = MetersToCoil(fDetector, x, y); eventInfo->vtxMetersToCloseEdge = MetersToCloseEdge(fDetector, x, y, 0); return; }

void ANtpInfoObjectFiller::FillFiducialInformation (  ANtpTrackInfo *  trackInfo  )  [protected]

Definition at line 491 of file ANtpInfoObjectFiller.cxx. References ANtpTrackInfo::endMetersToBeam, ANtpTrackInfo::endMetersToCloseEdge, ANtpTrackInfo::endMetersToCoil, ANtpTrackInfo::endX, ANtpTrackInfo::endY, ANtpTrackInfo::endZ, fDetector, MetersToBeam(), MetersToCloseEdge(), MetersToCoil(), ANtpTrackInfo::vtxMetersToBeam, ANtpTrackInfo::vtxMetersToCloseEdge, ANtpTrackInfo::vtxMetersToCoil, ANtpTrackInfo::vtxX, ANtpTrackInfo::vtxY, and ANtpTrackInfo::vtxZ. Referenced by FillEventInformation(), and FillTrackInformation(). { double x = trackInfo->vtxX; double y = trackInfo->vtxY; double z = trackInfo->vtxZ; trackInfo->vtxMetersToBeam = MetersToBeam(fDetector, x, y, z); trackInfo->vtxMetersToCoil = MetersToCoil(fDetector, x, y); trackInfo->vtxMetersToCloseEdge = MetersToCloseEdge(fDetector, x,y, 0); x = trackInfo->endX; y = trackInfo->endY; z = trackInfo->endZ; trackInfo->endMetersToBeam = MetersToBeam(fDetector, x, y, z); trackInfo->endMetersToCoil = MetersToCoil(fDetector, x, y); trackInfo->endMetersToCloseEdge = MetersToCloseEdge(fDetector, x, y, 1); return; }

void ANtpInfoObjectFiller::FillHeaderInformation (  ANtpRecoNtpManipulator *  ntpManip, Detector::Detector_t  det, SimFlag::SimFlag_t  dataType, ANtpHeaderInfo *  headerInfo )

Definition at line 113 of file ANtpInfoObjectFiller.cxx. References AstUtil::CalendarToJulian(), ANtpHeaderInfo::coilCurrent, ANtpHeaderInfo::coilStatus, NtpSRDataQuality::cratemask, ANtpHeaderInfo::crateMask, ANtpHeaderInfo::dataType, ANtpHeaderInfo::day, ANtpHeaderInfo::detector, ANtpHeaderInfo::events, fRowNum, fStripArray, fVldc, Dcs_Mag_Near::GetCurrent(), BfldDbiCoilState::GetCurrent(), ANtpRecoNtpManipulator::GetDataQuality(), ANtpRecoNtpManipulator::GetDmxStatusInfo(), HvStatusFinder::GetHvStatus(), ANtpRecoNtpManipulator::GetNtpStRecord(), DbiResultPtr< T >::GetNumRows(), ANtpRecoNtpManipulator::GetReleaseMCType(), DbiResultPtr< T >::GetRow(), ANtpRecoNtpManipulator::GetRun(), ANtpRecoNtpManipulator::GetSnarl(), ANtpRecoNtpManipulator::GetSnarlEventSummary(), ANtpRecoNtpManipulator::GetSpillType(), ANtpRecoNtpManipulator::GetSubRun(), ANtpRecoNtpManipulator::GetTriggerSource(), HvStatus::Good(), AstUtil::GSTToLST(), ANtpHeaderInfo::hour, ANtpHeaderInfo::hvStatus, HvStatusFinder::Instance(), DataUtil::IsGoodFDData(), ANtpHeaderInfo::isGoodFDData, LISieve::IsLI(), ANtpHeaderInfo::isLI, CoilTools::IsOK(), CoilTools::IsReverse(), ANtpHeaderInfo::julianDate, AstUtil::JulianToGMST(), ANtpHeaderInfo::localSiderealTime, ANtpHeaderInfo::minute, ANtpHeaderInfo::month, ANtpHeaderInfo::newSnarl, ANtpHeaderInfo::passedDeMux, NtpSRPulseHeight::pe, NtpSRStrip::ph0, NtpSRStrip::ph1, ANtpHeaderInfo::Reset(), ANtpHeaderInfo::run, ANtpHeaderInfo::second, NtpSRPulseHeight::sigcor, ANtpHeaderInfo::slices, ANtpHeaderInfo::snarl, ANtpHeaderInfo::snarlPE, ANtpHeaderInfo::snarlPulseHeight, ANtpHeaderInfo::snarlPulseHeight2PE, ANtpHeaderInfo::sntpRow, ANtpHeaderInfo::softVersion, ANtpHeaderInfo::spillType, ANtpHeaderInfo::subRun, ANtpHeaderInfo::triggerPMTTime, ANtpHeaderInfo::triggerSource, ANtpHeaderInfo::triggerTime, ANtpHeaderInfo::utc, and ANtpHeaderInfo::year. Referenced by CondensedNtpModuleNC::Ana(), CondensedNtpModuleAtm::Ana(), and CondensedNtpModule::Ana(). { const NtpSREventSummary& summary(ntpManip->GetSnarlEventSummary()); headerInfo->Reset(); headerInfo->detector = (int)det; headerInfo->dataType = (int)dataType; headerInfo->run = ntpManip->GetRun(); headerInfo->subRun = ntpManip->GetSubRun(); headerInfo->snarl = ntpManip->GetSnarl(); //always call it a new snarl because this method is called once per record //reset the value in the loop over events in the module headerInfo->newSnarl = 1; headerInfo->triggerSource = ntpManip->GetTriggerSource(); headerInfo->spillType = ntpManip->GetSpillType(); headerInfo->events = summary.nevent; headerInfo->slices = summary.nslice; headerInfo->year = (int)summary.date.year; headerInfo->month = (int)summary.date.month; headerInfo->day = (int)summary.date.day; headerInfo->hour = (int)summary.date.hour; headerInfo->minute = (int)summary.date.minute; headerInfo->second = summary.date.sec; headerInfo->utc = summary.date.utc; double longitude = AstUtil::kFarDetLongitude; if(det == Detector::kNear) longitude = AstUtil::kNearDetLongitude; double gmst = 0.; double hour = 1.*headerInfo->hour + 1.*headerInfo->minute/60. + headerInfo->second/3600.; AstUtil::CalendarToJulian(headerInfo->year, headerInfo->month, headerInfo->day, hour, headerInfo->julianDate); AstUtil::JulianToGMST(headerInfo->julianDate, gmst); AstUtil::GSTToLST(gmst, longitude, headerInfo->localSiderealTime); headerInfo->snarlPulseHeight = summary.ph.sigcor; headerInfo->triggerPMTTime = summary.litime; headerInfo->triggerTime = summary.trigtime; headerInfo->passedDeMux = 1; headerInfo->crateMask = ntpManip->GetDataQuality().cratemask; headerInfo->isGoodFDData = (int)DataUtil::IsGoodFDData(ntpManip->GetNtpStRecord()); //...................................................................... //Now fill new data members headerInfo->snarlPE = summary.ph.pe; headerInfo->sntpRow = fRowNum++; headerInfo->isLI = LISieve::IsLI( *(ntpManip->GetNtpStRecord()) ); //...................................................................... //Fill Release type member headerInfo->softVersion = ntpManip->GetReleaseMCType(); //Passed DeMux flag if(det == Detector::kFar) { const NtpSRDmxStatus& dmx( ntpManip->GetDmxStatusInfo()); if (dmx.ismultimuon || dmx.validplanesfail) headerInfo->passedDeMux = 0; } //loop over the strips to figure out the double ph2pe = 0.; double ph = 0.; NtpSRStrip *strip = 0; for(int i = 0; i < fStripArray->GetLast()+1; ++i){ strip = dynamic_cast<NtpSRStrip *>(fStripArray->At(i)); ph = strip->ph0.pe+strip->ph1.pe; if(ph > 2.) ph2pe += strip->ph0.sigcor + strip->ph1.sigcor; } headerInfo->snarlPulseHeight2PE = ph2pe; //figure out the coil status headerInfo->coilStatus = 0; //coil is always on in the MC if(dataType == SimFlag::kMC){ headerInfo->coilStatus = 1; return; } //get the appropriate context VldTimeStamp timeStamp(summary.date.year, summary.date.month, summary.date.day, summary.date.hour, summary.date.minute, TMath::Nint(summary.date.sec)); fVldc = VldContext(det, dataType, timeStamp); //check out the HV status of the detector - only works for //far detector currently if(det == Detector::kFar){ HvStatus::HvStatus_t hv = HvStatusFinder::Instance().GetHvStatus(fVldc,60,1); headerInfo->hvStatus = (int)HvStatus::Good(hv); // MSG("ANtpInfoObjectFiller", Msg::kInfo) << HvStatus::Good(hv) // << " " // << headerInfo->hvStatus // << endl; } //CoilTools allows for generic access of the database - no //detector dependent stuff needed by user if( CoilTools::IsReverse(fVldc) ) headerInfo->coilStatus = -1; else headerInfo->coilStatus = 1; if( !CoilTools::IsOK(fVldc) ) headerInfo->coilStatus = 0; if(det == Detector::kFar){ DbiResultPtr<BfldDbiCoilState> coilTable(fVldc); for(UInt_t i = 0; i < coilTable.GetNumRows(); ++i){ const BfldDbiCoilState *coilState = coilTable.GetRow(i); if(i == 0) headerInfo->coilCurrent = coilState->GetCurrent(); } }//end if far else if(det == Detector::kNear){ DbiResultPtr<Dcs_Mag_Near> nearTable(fVldc); //get the status of the coils if(nearTable.GetNumRows() > 0){ const Dcs_Mag_Near *coilCurrent = nearTable.GetRow(0); headerInfo->coilCurrent = coilCurrent->GetCurrent(); } } return; }

void ANtpInfoObjectFiller::FillMCTruthInformation (  NtpMCTruth *  ntpMCTruth, ANtpTruthInfo *  truthInfo )

Definition at line 407 of file ANtpInfoObjectFiller.cxx. References ANtpTruthInfo::hadronicY, NtpMCTruth::iaction, ANtpTruthInfo::interactionType, NtpMCTruth::inu, ANtpTruthInfo::leptonDCosX, ANtpTruthInfo::leptonDCosY, ANtpTruthInfo::leptonDCosZ, ANtpTruthInfo::leptonMomentum, ANtpTruthInfo::nuDCosX, ANtpTruthInfo::nuDCosY, ANtpTruthInfo::nuDCosZ, ANtpTruthInfo::nuEnergy, ANtpTruthInfo::nuFlavor, ANtpTruthInfo::nuVtxX, ANtpTruthInfo::nuVtxY, ANtpTruthInfo::nuVtxZ, NtpMCTruth::p4el1, NtpMCTruth::p4mu1, NtpMCTruth::p4neu, NtpMCTruth::p4shw, NtpMCTruth::p4tau, NtpMCTruth::p4tgt, ANtpTruthInfo::Reset(), ANtpTruthInfo::showerDCosX, ANtpTruthInfo::showerDCosY, ANtpTruthInfo::showerDCosZ, ANtpTruthInfo::showerEnergy, ANtpTruthInfo::targetEnergy, ANtpTruthInfo::targetPX, ANtpTruthInfo::targetPY, ANtpTruthInfo::targetPZ, NtpMCTruth::vtxx, NtpMCTruth::vtxy, NtpMCTruth::vtxz, and NtpMCTruth::y. Referenced by CondensedNtpModule::Ana(), ANtpTruthInfoBeamAna::Analyze(), MadAnalysis::CreateANtpPAN(), CondensedNtpModuleAtm::FillMCInformation(), ANtpInfoObjectFillerNC::FillMCInformation(), and CondensedNtpModule::FillUnRecoedMCInformation(). { const Float_t muMass = 0.105658357; //mu mass in GeV/c const Float_t eMass = 0.000510999; //e mass in GeV/c const Float_t tauMass = 1.777; //tau mass in GeV/c truthInfo->Reset(); truthInfo->nuEnergy = ntpMCTruth->p4neu[3]; truthInfo->nuVtxX = ntpMCTruth->vtxx; truthInfo->nuVtxY = ntpMCTruth->vtxy; truthInfo->nuVtxZ = ntpMCTruth->vtxz; if(TMath::Abs(truthInfo->nuEnergy) > 0.){ truthInfo->nuDCosX = ntpMCTruth->p4neu[0]/TMath::Sqrt(truthInfo->nuEnergy*truthInfo->nuEnergy); truthInfo->nuDCosY = ntpMCTruth->p4neu[1]/TMath::Sqrt(truthInfo->nuEnergy*truthInfo->nuEnergy); truthInfo->nuDCosZ = ntpMCTruth->p4neu[2]/TMath::Sqrt(truthInfo->nuEnergy*truthInfo->nuEnergy); } else{ truthInfo->nuDCosX = -10000.; truthInfo->nuDCosY = -10000.; truthInfo->nuDCosZ = -10000.; } truthInfo->nuFlavor = ntpMCTruth->inu; truthInfo->interactionType = ntpMCTruth->iaction; truthInfo->targetEnergy = ntpMCTruth->p4tgt[3]; truthInfo->targetPX = ntpMCTruth->p4tgt[0]; truthInfo->targetPY = ntpMCTruth->p4tgt[1]; truthInfo->targetPZ = ntpMCTruth->p4tgt[2]; truthInfo->hadronicY = ntpMCTruth->y; truthInfo->showerEnergy = 0.; float showerMomentumSqr = 0.; if(ntpMCTruth->p4shw[3]>0. && TMath::Abs(ntpMCTruth->p4shw[0] + ntpMCTruth->p4shw[1] + ntpMCTruth->p4shw[2]) > 0.){ truthInfo->showerEnergy = ntpMCTruth->p4shw[3]; showerMomentumSqr = ntpMCTruth->p4shw[0]*ntpMCTruth->p4shw[0]; showerMomentumSqr += ntpMCTruth->p4shw[1]*ntpMCTruth->p4shw[1]; showerMomentumSqr += ntpMCTruth->p4shw[2]*ntpMCTruth->p4shw[2]; truthInfo->showerDCosX = ntpMCTruth->p4shw[0]/TMath::Sqrt(showerMomentumSqr); truthInfo->showerDCosY = ntpMCTruth->p4shw[1]/TMath::Sqrt(showerMomentumSqr); truthInfo->showerDCosZ = ntpMCTruth->p4shw[2]/TMath::Sqrt(showerMomentumSqr); } else{ truthInfo->showerDCosX = ANtpDefVal::kFloat; truthInfo->showerDCosY = ANtpDefVal::kFloat; truthInfo->showerDCosZ = ANtpDefVal::kFloat; } truthInfo->leptonMomentum = 0.; if(TMath::Abs(ntpMCTruth->p4mu1[3])>muMass){ truthInfo->leptonMomentum = TMath::Sqrt(ntpMCTruth->p4mu1[3]*ntpMCTruth->p4mu1[3] - muMass*muMass); truthInfo->leptonDCosX = ntpMCTruth->p4mu1[0]/truthInfo->leptonMomentum; truthInfo->leptonDCosY = ntpMCTruth->p4mu1[1]/truthInfo->leptonMomentum; truthInfo->leptonDCosZ = ntpMCTruth->p4mu1[2]/truthInfo->leptonMomentum; if(ntpMCTruth->p4mu1[3]<0.) truthInfo->leptonMomentum *= -1.; } else if(TMath::Abs(ntpMCTruth->p4el1[3])>eMass){ truthInfo->leptonMomentum = TMath::Sqrt(ntpMCTruth->p4el1[3]*ntpMCTruth->p4el1[3] - eMass*eMass); truthInfo->leptonDCosX = ntpMCTruth->p4el1[0]/truthInfo->leptonMomentum; truthInfo->leptonDCosY = ntpMCTruth->p4el1[1]/truthInfo->leptonMomentum; truthInfo->leptonDCosZ = ntpMCTruth->p4el1[2]/truthInfo->leptonMomentum; if(ntpMCTruth->p4el1[3]<0.) truthInfo->leptonMomentum *= -1.; } else if(TMath::Abs(ntpMCTruth->p4tau[3])>tauMass){ truthInfo->leptonMomentum = TMath::Sqrt(ntpMCTruth->p4tau[3]*ntpMCTruth->p4tau[3] - tauMass*tauMass); truthInfo->leptonDCosX = ntpMCTruth->p4tau[0]/truthInfo->leptonMomentum; truthInfo->leptonDCosY = ntpMCTruth->p4tau[1]/truthInfo->leptonMomentum; truthInfo->leptonDCosZ = ntpMCTruth->p4tau[2]/truthInfo->leptonMomentum; if(ntpMCTruth->p4tau[3]<0.) truthInfo->leptonMomentum *= -1.; } else{ truthInfo->leptonDCosX = ANtpDefVal::kFloat; truthInfo->leptonDCosY = ANtpDefVal::kFloat; truthInfo->leptonDCosZ = ANtpDefVal::kFloat; } return; }

void ANtpInfoObjectFiller::FillShowerInformation (  NtpSRShower *  ntpShower, ANtpShowerInfo *  showerInfo )

Definition at line 307 of file ANtpInfoObjectFiller.cxx. References NtpSRPlane::beg, ANtpShowerInfo::begPlane, NtpSRVertex::dcosx, ANtpShowerInfo::dcosX, NtpSRVertex::dcosy, ANtpShowerInfo::dcosY, NtpSRVertex::dcosz, ANtpShowerInfo::dcosZ, ANtpShowerInfo::deweightCCGeV, ANtpShowerInfo::deweightNCGeV, NtpSRPlane::end, ANtpShowerInfo::endPlane, fStripArray, NtpSRShowerPulseHeight::linCCgev, ANtpShowerInfo::linearCCGeV, ANtpShowerInfo::linearNCGeV, NtpSRShowerPulseHeight::linNCgev, NtpSRPlane::n, NtpSRShower::nstrip, NtpSRShower::ph, NtpSRStrip::plane, NtpSRShower::plane, ANtpShowerInfo::planes, ANtpShowerInfo::pulseHeight, ANtpShowerInfo::Reset(), NtpSRShower::shwph, NtpSRPulseHeight::sigcor, NtpSRShower::stp, ANtpShowerInfo::stripsPerPlane, ANtpShowerInfo::totalStrips, NtpSRShower::vtx, ANtpShowerInfo::vtxX, ANtpShowerInfo::vtxY, ANtpShowerInfo::vtxZ, NtpSRShowerPulseHeight::wtCCgev, NtpSRShowerPulseHeight::wtNCgev, NtpSRVertex::x, NtpSRVertex::y, and NtpSRVertex::z. Referenced by CondensedNtpModule::Ana(), ANtpShowerInfoAna::Analyze(), MadAnalysis::CreateANtpPAN(), ANtpAnalysisInfoAna::FillNueAnalysisInformation(), and ANtpInfoObjectFillerNC::FillShowerInformation(). { showerInfo->Reset(); showerInfo->planes = ntpShower->plane.n; showerInfo->totalStrips = ntpShower->nstrip; showerInfo->begPlane = ntpShower->plane.beg; showerInfo->endPlane = ntpShower->plane.end; showerInfo->vtxX = ntpShower->vtx.x; showerInfo->vtxY = ntpShower->vtx.y; showerInfo->vtxZ = ntpShower->vtx.z; showerInfo->dcosX = ntpShower->vtx.dcosx; showerInfo->dcosY = ntpShower->vtx.dcosy; showerInfo->dcosZ = ntpShower->vtx.dcosz; showerInfo->pulseHeight = ntpShower->ph.sigcor;//used to be sigmap showerInfo->linearCCGeV = ntpShower->shwph.linCCgev; showerInfo->linearNCGeV = ntpShower->shwph.linNCgev; showerInfo->deweightCCGeV = ntpShower->shwph.wtCCgev; showerInfo->deweightNCGeV = ntpShower->shwph.wtNCgev; //loop over the strips in the shower and record which planes they are on NtpSRStrip *strip = 0; for(int i = 0; i < showerInfo->totalStrips; ++i){ strip = dynamic_cast<NtpSRStrip *>(fStripArray->At(ntpShower->stp[i])); ++showerInfo->stripsPerPlane[strip->plane]; } return; }

void ANtpInfoObjectFiller::FillTrackInformation (  NtpSRTrack *  ntpTrack, ANtpTrackInfo *  trackInfo )

Definition at line 248 of file ANtpInfoObjectFiller.cxx. References NtpSRTrackTime::backwardRMS, ANtpTrackInfo::backwardRMS, NtpSRPlane::beg, ANtpTrackInfo::begPlane, ANtpTrackInfo::begPlaneU, ANtpTrackInfo::begPlaneV, NtpSRPlane::begu, NtpSRPlane::begv, NtpSRFitTrack::chi2, NtpSRVertex::dcosx, ANtpTrackInfo::dcosXEnd, ANtpTrackInfo::dcosXVtx, NtpSRVertex::dcosy, ANtpTrackInfo::dcosYEnd, ANtpTrackInfo::dcosYVtx, NtpSRVertex::dcosz, ANtpTrackInfo::dcosZEnd, ANtpTrackInfo::dcosZVtx, NtpSRTrack::ds, NtpSRTrack::end, NtpSRPlane::end, ANtpTrackInfo::endPlane, ANtpTrackInfo::endPlaneU, ANtpTrackInfo::endPlaneV, NtpSRPlane::endu, NtpSRPlane::endv, ANtpTrackInfo::endX, ANtpTrackInfo::endY, ANtpTrackInfo::endZ, NtpSRMomentum::eqp, FillFiducialInformation(), NtpSRTrack::fit, ANtpTrackInfo::fitMomentum, NtpSRTrackTime::forwardRMS, ANtpTrackInfo::forwardRMS, fStripArray, GetTrackTrace(), ANtpTrackInfo::length, NtpSRTrack::momentum, NtpSRPlane::n, NtpSRFitTrack::ndof, NtpSRTrack::nstrip, NtpSRFitTrack::pass, ANtpTrackInfo::passedFit, NtpSRTrack::ph, NtpSRStrip::plane, NtpSRTrack::plane, ANtpTrackInfo::planes, ANtpTrackInfo::pulseHeight, NtpSRMomentum::qp, NtpSRMomentum::range, ANtpTrackInfo::rangeMomentum, ANtpTrackInfo::reducedChi2, ANtpTrackInfo::Reset(), NtpSRPulseHeight::sigcor, ANtpTrackInfo::sigmaQoverP, NtpSRTrack::stp, ANtpTrackInfo::stripsPerPlane, NtpSRTrack::time, ANtpTrackInfo::totalStrips, NtpSRTrack::vtx, ANtpTrackInfo::vtxX, ANtpTrackInfo::vtxY, ANtpTrackInfo::vtxZ, NtpSRVertex::x, NtpSRVertex::y, and NtpSRVertex::z. Referenced by CondensedNtpModule::Ana(), ANtpTrackInfoAna::Analyze(), MadAnalysis::CreateANtpPAN(), ANtpAnalysisInfoAna::FillNueAnalysisInformation(), CondensedNtpModuleAtm::FillTrackInformation(), and ANtpInfoObjectFillerNC::FillTrackInformation(). { trackInfo->Reset(); trackInfo->planes = ntpTrack->plane.n; trackInfo->totalStrips = ntpTrack->nstrip; trackInfo->pulseHeight = ntpTrack->ph.sigcor; if(TMath::Abs(ntpTrack->momentum.qp) > 0.) trackInfo->fitMomentum = (1./ntpTrack->momentum.qp); trackInfo->sigmaQoverP = ntpTrack->momentum.eqp; trackInfo->rangeMomentum = ntpTrack->momentum.range; trackInfo->begPlane = ntpTrack->plane.beg; trackInfo->endPlane = ntpTrack->plane.end; trackInfo->begPlaneU = ntpTrack->plane.begu; trackInfo->endPlaneU = ntpTrack->plane.endu; trackInfo->begPlaneV = ntpTrack->plane.begv; trackInfo->endPlaneV = ntpTrack->plane.endv; trackInfo->length = ntpTrack->ds; trackInfo->vtxX = ntpTrack->vtx.x; trackInfo->vtxY = ntpTrack->vtx.y; trackInfo->vtxZ = ntpTrack->vtx.z; trackInfo->dcosXVtx = ntpTrack->vtx.dcosx; trackInfo->dcosYVtx = ntpTrack->vtx.dcosy; trackInfo->dcosZVtx = ntpTrack->vtx.dcosz; trackInfo->endX = ntpTrack->end.x; trackInfo->endY = ntpTrack->end.y; trackInfo->endZ = ntpTrack->end.z; trackInfo->dcosXEnd = ntpTrack->end.dcosx; trackInfo->dcosYEnd = ntpTrack->end.dcosy; trackInfo->dcosZEnd = ntpTrack->end.dcosz; trackInfo->passedFit = 0; if(ntpTrack->fit.pass) trackInfo->passedFit = 1; trackInfo->reducedChi2 = ntpTrack->fit.chi2; if(ntpTrack->fit.ndof>0.) trackInfo->reducedChi2 /= 1.*ntpTrack->fit.ndof; trackInfo->forwardRMS = ntpTrack->time.forwardRMS; trackInfo->backwardRMS = ntpTrack->time.backwardRMS; GetTrackTrace(ntpTrack, trackInfo, -1); GetTrackTrace(ntpTrack, trackInfo, 1); FillFiducialInformation(trackInfo); //loop over the strips in the track and record which planes they are on NtpSRStrip *strip = 0; for(int i = 0; i < trackInfo->totalStrips; ++i){ if (ntpTrack->stp[i] >=0) strip = dynamic_cast<NtpSRStrip *> (fStripArray->At(ntpTrack->stp[i])); else continue; ++trackInfo->stripsPerPlane[strip->plane]; } return; }

void ANtpInfoObjectFiller::GetTrackTrace (  NtpSRTrack *  ntpTrack, ANtpTrackInfo *  trackInfo, Int_t  direction )  [private]

Definition at line 551 of file ANtpInfoObjectFiller.cxx. References NtpSRVertex::dcosu, NtpSRVertex::dcosv, NtpSRVertex::dcosx, NtpSRVertex::dcosy, NtpSRVertex::dcosz, NtpSRTrack::end, kInverseSqrt2, Sqr(), ANtpTrackInfo::traceEnd, ANtpTrackInfo::traceEndZ, ANtpTrackInfo::traceVtx, ANtpTrackInfo::traceVtxZ, NtpSRVertex::u, NtpSRVertex::v, NtpSRTrack::vtx, NtpSRVertex::x, NtpSRVertex::y, and NtpSRVertex::z. Referenced by FillTrackInformation(). { //get the trace for the track - this is very far detector centric for now, //adapted from C. Howcroft's code //direction tells you whether to trace back from vertex (-1) or forward from end (1) //side is as labeled below /* 0 -------- 7 / \ 1 / y| \ 6 | | | 2 | ---- | 5 \ x / 3 \ / -------- 4 */ double dcos[3] = {direction*ntpTrack->vtx.dcosx, direction*ntpTrack->vtx.dcosy, direction*ntpTrack->vtx.dcosz}; double dcosUV[3] = {direction*ntpTrack->vtx.dcosu, direction*ntpTrack->vtx.dcosv, direction*ntpTrack->vtx.dcosz}; double endPointXY[3] = {ntpTrack->vtx.x, ntpTrack->vtx.y, ntpTrack->vtx.z}; double endPointUV[3] = {ntpTrack->vtx.u, ntpTrack->vtx.v, ntpTrack->vtx.z}; if(direction > 0){ endPointXY[0] = ntpTrack->end.x; endPointXY[1] = ntpTrack->end.y; endPointXY[2] = ntpTrack->end.z; endPointUV[0] = ntpTrack->end.u; endPointUV[1] = ntpTrack->end.v; endPointUV[2] = ntpTrack->end.z; dcos[0] = ntpTrack->end.dcosx; dcos[1] = ntpTrack->end.dcosy; dcos[2] = ntpTrack->end.dcosz; dcosUV[0] = ntpTrack->end.dcosu; dcosUV[1] = ntpTrack->end.dcosv; dcosUV[2] = ntpTrack->end.dcosz; } int side = -1; double xzproj[2]={-999., -999.}; double entry[3] = {0.}; double minpath = 99e99; double tmppath = 0.; double maxDetectorY = 4.; double sidelength = kFarSideLength; if(TMath::IsNaN(endPointUV[0]) || TMath::IsNaN(endPointUV[1]) || TMath::IsNaN(dcosUV[0]) || TMath::IsNaN(dcosUV[1]) || TMath::IsNaN(dcos[2])) return; if(TMath::Abs(dcos[1])>1.e-6){ // Y - SIDES //SIDE 0 xzproj[0] = endPointXY[0] + (dcos[0]/dcos[1])*(maxDetectorY - endPointXY[1]); xzproj[1] = endPointXY[2] + (dcos[2]/dcos[1])*(maxDetectorY - endPointXY[1]); if(TMath::Abs(xzproj[0]) < sidelength && ((xzproj[1] - endPointXY[2])*dcos[2]) > 0.0){ tmppath = Sqr(endPointXY[0] - xzproj[0]) + Sqr(endPointXY[1] - maxDetectorY) + Sqr(endPointXY[2] - xzproj[1]); if(TMath::Finite(tmppath)){ tmppath = TMath::Sqrt(tmppath); if(tmppath < minpath){ minpath = tmppath; entry[0] = xzproj[0]; entry[2] = xzproj[1]; entry[1] = maxDetectorY; side = 0; } } }//end side 0 //SIDE 4 xzproj[0] = endPointXY[0] + (dcos[0]/dcos[1])*(-maxDetectorY - endPointXY[1]); xzproj[1] = endPointXY[2] + (dcos[2]/dcos[1])*(-maxDetectorY - endPointXY[1]); if(TMath::Abs(xzproj[0]) < sidelength && ((xzproj[1] - endPointXY[2])*dcos[2]) > 0.0){ tmppath = Sqr(endPointXY[0] - xzproj[0]) + Sqr(endPointXY[1] + maxDetectorY) + Sqr(endPointXY[2] - xzproj[1]); if(TMath::Finite(tmppath)){ tmppath = TMath::Sqrt(tmppath); if(tmppath<minpath){ minpath = tmppath; entry[0] = xzproj[0]; entry[2] = xzproj[1]; entry[1] = -maxDetectorY; side = 4; } } }//end side 4 }//end Y sides if(TMath::Abs(dcos[0])>1e-6){ // X - SIDES //SIDE 2 xzproj[0] = endPointXY[1] + (dcos[1]/dcos[0])*(maxDetectorY - endPointXY[0]); xzproj[1] = endPointXY[2] + (dcos[2]/dcos[0])*(maxDetectorY - endPointXY[0]); if(TMath::Abs(xzproj[0]) < sidelength && ((xzproj[1] - endPointXY[2])*dcos[2]) > 0.0){ tmppath = (endPointXY[1] - xzproj[0]) * (endPointXY[1] - xzproj[0]) + (endPointXY[0] - maxDetectorY) * (endPointXY[0] - maxDetectorY) + (endPointXY[2] - xzproj[1]) * (endPointXY[2] - xzproj[1]); if(TMath::Finite(tmppath)){ tmppath = TMath::Sqrt(tmppath); if(tmppath<minpath){ minpath = tmppath; entry[1] = xzproj[0]; entry[2] = xzproj[1]; entry[0] = maxDetectorY; side = 2; } } }//end side 2 //SIDE 6 xzproj[0] = endPointXY[1] + (dcos[1]/dcos[0])*(-maxDetectorY - endPointXY[0]); xzproj[1] = endPointXY[2] + (dcos[2]/dcos[0])*(-maxDetectorY - endPointXY[0]); if(TMath::Abs(xzproj[0]) < sidelength && ((xzproj[1] - endPointXY[2])*dcos[2]) > 0.0){ tmppath = Sqr(endPointXY[1] - xzproj[0]) + Sqr(endPointXY[0] + maxDetectorY) + Sqr(endPointXY[2] - xzproj[1]); if(TMath::Finite(tmppath)){ tmppath = TMath::Sqrt(tmppath); if(tmppath<minpath){ minpath = tmppath; entry[1] = xzproj[0]; entry[2] = xzproj[1]; entry[0] = -maxDetectorY; side = 6; } } }//end if side 6 }//end x sides if(TMath::Abs(dcosUV[0])>1.e-6){ // U - SIDES //SIDE 1 xzproj[0] = endPointUV[1] + (dcosUV[1]/dcosUV[0])*(maxDetectorY - endPointUV[0]); xzproj[1] = endPointXY[2] + (dcos[2]/dcosUV[0])*(maxDetectorY - endPointUV[0]); if(TMath::Abs(xzproj[0]) < sidelength && ((xzproj[1] - endPointXY[2])*dcos[2]) > 0.0){ tmppath = Sqr(ntpTrack->vtx.v - xzproj[0]) + Sqr(ntpTrack->vtx.u - maxDetectorY) + Sqr(endPointXY[2] - xzproj[1]); if(TMath::Finite(tmppath)){ tmppath = TMath::Sqrt(tmppath); if(tmppath<minpath){ minpath = tmppath; entry[0] = kInverseSqrt2*(maxDetectorY - xzproj[0]) ; entry[2] = xzproj[1]; entry[1] = kInverseSqrt2*(maxDetectorY + xzproj[0]) ; side = 1; } } }//end if side1 //SIDE 5 xzproj[0] = endPointUV[1] + (dcosUV[1]/dcosUV[0])*(-maxDetectorY - endPointUV[0]); xzproj[1] = endPointXY[2] + (dcos[2]/dcosUV[0])*(-maxDetectorY - endPointUV[0]); if(TMath::Abs(xzproj[0]) < sidelength && ((xzproj[1] - endPointXY[2])*dcos[2]) > 0.0){ tmppath = Sqr(ntpTrack->vtx.v - xzproj[0]) + Sqr(ntpTrack->vtx.u + maxDetectorY) + Sqr(endPointXY[2] - xzproj[1]); if(TMath::Finite(tmppath)){ tmppath = TMath::Sqrt(tmppath); if(tmppath<minpath){ minpath = tmppath; entry[0] = kInverseSqrt2*(-maxDetectorY - xzproj[0]) ; entry[2] = xzproj[1]; entry[1] = kInverseSqrt2*(-maxDetectorY + xzproj[0]) ; side = 5; } } }//end if side 5 }//end u sides if(TMath::Abs(dcosUV[1])>1.e-6){ // V - SIDES //SIDE 7 xzproj[0] = endPointUV[0] + (dcosUV[0]/dcosUV[1])*(maxDetectorY - endPointUV[1]); xzproj[1] = endPointXY[2] + (dcos[2]/dcosUV[1])*(maxDetectorY - endPointUV[1]); if(TMath::Abs(xzproj[0]) < sidelength && ((xzproj[1] - endPointXY[2])*dcos[2]) > 0.0){ tmppath = Sqr(ntpTrack->vtx.u - xzproj[0]) + Sqr(ntpTrack->vtx.v - maxDetectorY) + Sqr(endPointXY[2] - xzproj[1]); if(TMath::Finite(tmppath)){ tmppath = TMath::Sqrt ( tmppath); if(tmppath<minpath){ minpath = tmppath; entry[0] = kInverseSqrt2*(xzproj[0]-maxDetectorY) ; entry[2] = xzproj[1]; entry[1] = kInverseSqrt2*(xzproj[0]+maxDetectorY) ; side = 7; } } }//end if side7 //SIDE 3 xzproj[0] = endPointUV[0] + (dcosUV[0]/dcosUV[1])*(-maxDetectorY - endPointUV[1]); xzproj[1] = endPointXY[2] + (dcos[2]/dcosUV[1])*(-maxDetectorY - endPointUV[1]); if(TMath::Abs(xzproj[0]) < sidelength && ((xzproj[1] - endPointXY[2])*dcos[2]) > 0.0){ tmppath = Sqr(ntpTrack->vtx.u - xzproj[0]) + Sqr(ntpTrack->vtx.v + maxDetectorY) + Sqr(endPointXY[2] - xzproj[1]); if(TMath::Finite(tmppath)){ tmppath = TMath::Sqrt(tmppath); if(tmppath<minpath){ minpath = tmppath; entry[0] = kInverseSqrt2*(xzproj[0]+maxDetectorY) ; entry[2] = xzproj[1]; entry[1] = kInverseSqrt2*(xzproj[0]-maxDetectorY) ; side = 3; } } }//end if side 3 }//end v sides if(direction < 0){ trackInfo->traceVtx = TMath::Sqrt(Sqr(endPointXY[0]-entry[0]) + Sqr(endPointXY[1]-entry[1]) + Sqr(endPointXY[2]-entry[2])); trackInfo->traceVtxZ = entry[2] - endPointXY[2]; } else if(direction > 0){ trackInfo->traceEnd = TMath::Sqrt(Sqr(ntpTrack->end.x-entry[0]) + Sqr(ntpTrack->end.y-entry[1]) + Sqr(ntpTrack->end.z-entry[2])); trackInfo->traceEndZ = entry[2] - ntpTrack->end.z; } return; }

Float_t ANtpInfoObjectFiller::MetersToBeam (  Detector::Detector_t  det, Float_t  x, Float_t  y, Float_t  z )

Definition at line 781 of file ANtpInfoObjectFiller.cxx. Referenced by ANtpEventInfoAna::Analyze(), and FillFiducialInformation(). 00786 : 00787 // Beam is at x = 1.4485m 00788 // Beam dy/dz = -0.0578 (angle = -3.31deg) to the z-axis 00789 // Beam passes through y = 0 at back of golden region (plane 90) 00790 // \-> Beam passes through y = 0.3087 @ z = 0 00791 // Still looking for hard evidence about this. 00792 { 00793 if (det == Detector::kNear) { 00794 const Float_t dydz(-0.0578); 00795 const Float_t beamCenterX(1.4885 * Munits::m); 00796 const Float_t beamCenterY0(0.3087 * Munits::m); 00797 00798 x -= beamCenterX; 00799 y -= beamCenterY0 + dydz * z; 00800 return TMath::Sqrt(x*x + y*y); 00801 } 00802 00803 else if (det == Detector::kFar){ 00804 //Beam center is faintly meaningless for FD cut 00805 return ANtpDefVal::kFloat; 00806 } 00807 00808 else return ANtpDefVal::kFloat; 00809 } //----------------------------------------------------------------------

Float_t ANtpInfoObjectFiller::MetersToCloseEdge (  Detector::Detector_t  det, Float_t  x, Float_t  y, Bool_t  NDUseFullPlane = 0 )

Definition at line 827 of file ANtpInfoObjectFiller.cxx. References PlaneOutline::DistanceToOuterEdge(), and PlaneOutline::IsInside(). Referenced by ANtpEventInfoAna::Analyze(), and FillFiducialInformation(). { // Calculate the distance to the nearest (outside) plane edge // using the PlaneOutline class. // Currently takes distance to nearest edges seperatly for U and V // views, then takes the average of the two distances. // It would be better to take a single distance to an average plane // but this is not yet possible. if (det == Detector::kNear || det == Detector::kFar ){ // Pick a plane coverage PlaneCoverage::PlaneCoverage_t outline(PlaneCoverage::kComplete); if (det == Detector::kNear){ if (NDUseFullPlane) outline = PlaneCoverage::kNearFull; else outline = PlaneCoverage::kNearPartial; } PlaneOutline po; // Calculate distance (to nearest outside edge) in U. Float_t distU(0.); Float_t xedge; Float_t yedge; po.DistanceToOuterEdge(x, y, PlaneView::kU, outline, distU, xedge, yedge); // Calculate distance in V. Float_t distV(0.); po.DistanceToOuterEdge(x, y, PlaneView::kV, outline, distV, xedge, yedge); // Now work out if the point is inside or outside each outline // Firstly deal with the coil hole. We consider it inside, // but the PlaneOutline class calls it outside. Bool_t insideU(0.); if ( outline != PlaneCoverage::kNearPartial ) { // circle of radius 1/sqrt(2) will enclose the coilHole, // but is itself enclosed by the outer edges insideU = ( (x*x + y*y) < 0.5 * Munits::m2 ); //cout << "X: " << x << "; Y: " // << y << "; inside:" << insideU << endl; } Bool_t insideV(insideU); if ( !insideU ){ insideU = po.IsInside(x, y, PlaneView::kU, outline); insideV = po.IsInside(x, y, PlaneView::kV, outline); } distU *= ( insideU ? 1. : -1. ); distV *= ( insideV ? 1. : -1. ); // cout << ">U<: " << insideU << " " << distU << "\n"; //cout << ">V<: " << insideV << " " << distV; return ( distU + distV ) / 2.; } // if ( @ near or far detectors ) else return ANtpDefVal::kFloat; }

Float_t ANtpInfoObjectFiller::MetersToCoil (  Detector::Detector_t  det, Float_t  x, Float_t  y )

Definition at line 811 of file ANtpInfoObjectFiller.cxx. Referenced by ANtpEventInfoAna::Analyze(), and FillFiducialInformation(). { if (det == Detector::kNear){ // Take coil to be at (0,0) Looks about right... (?) return TMath::Sqrt(x*x + y*y); } else if (det == Detector::kFar){ return TMath::Sqrt(x*x + y*y); } else return ANtpDefVal::kFloat; }

void ANtpInfoObjectFiller::SetDetector (  Detector::Detector_t  detector  )

Reimplemented in ANtpInfoObjectFillerNC. Definition at line 105 of file ANtpInfoObjectFiller.cxx. References fDetector. Referenced by CondensedNtpModule::BeginJob(). { fDetector = detector; return; }

void ANtpInfoObjectFiller::SetStripArray (  TClonesArray *  strips  )

Definition at line 526 of file ANtpInfoObjectFiller.cxx. References fStripArray. Referenced by CondensedNtpModuleNC::Ana(), CondensedNtpModuleAtm::Ana(), CondensedNtpModule::Ana(), ANtpTruthInfoBeamAna::Analyze(), ANtpTrackInfoAna::Analyze(), ANtpShowerInfoAna::Analyze(), ANtpEventInfoAna::Analyze(), and ANtpAnalysisInfoAna::Analyze(). { fStripArray = strips; return; }

float ANtpInfoObjectFiller::Sqr (  float  x  )  [private]

Definition at line 545 of file ANtpInfoObjectFiller.cxx. { return x*x; }

int ANtpInfoObjectFiller::Sqr (  int  x  )  [private]

Definition at line 539 of file ANtpInfoObjectFiller.cxx. { return x*x; }

double ANtpInfoObjectFiller::Sqr (  double  x  )  [private]

Definition at line 533 of file ANtpInfoObjectFiller.cxx. Referenced by GetTrackTrace(). { return x*x; }

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Member Data Documentation

Detector::Detector_t ANtpInfoObjectFiller::fDetector [protected]

Definition at line 79 of file ANtpInfoObjectFiller.h. Referenced by FillFiducialInformation(), and SetDetector().

Long64_t ANtpInfoObjectFiller::fRowNum [private]

Definition at line 90 of file ANtpInfoObjectFiller.h. Referenced by FillHeaderInformation().

TClonesArray* ANtpInfoObjectFiller::fStripArray [protected]

Definition at line 78 of file ANtpInfoObjectFiller.h. Referenced by FillEventInformation(), FillHeaderInformation(), FillShowerInformation(), FillTrackInformation(), and SetStripArray().

VldContext ANtpInfoObjectFiller::fVldc [protected]

Definition at line 77 of file ANtpInfoObjectFiller.h. Referenced by FillHeaderInformation().

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

• ANtpInfoObjectFiller.h
• ANtpInfoObjectFiller.cxx

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