#include <HICMuonUpdator.h>
Public Member Functions | |
HICMuonUpdator (double &la1, double &la2, const MagneticField *mf, const cms::HICConst *hh) | |
TrajectoryStateOnSurface | update (const Trajectory &mt, const TrajectoryStateOnSurface &, const TrajectoryMeasurement &, const DetLayer *, double &, double &) const |
TrajectoryStateOnSurface | updateBarrel (std::vector< double > &rhit, std::vector< double > &zhit, std::vector< double > &dphihit, std::vector< double > &drhit, std::vector< double > &ehitstrip, std::vector< double > &dehitphi, const TransientTrackingRecHit::ConstRecHitPointer &pRecHit, const TransientTrackingRecHit::ConstRecHitPointer &nRecHit, const TrajectoryStateOnSurface &nTsos, double &, double &, int &) const |
TrajectoryStateOnSurface | updateEndcap (std::vector< double > &rhit, std::vector< double > &zhit, std::vector< double > &dphihit, std::vector< double > &drhit, std::vector< double > &ehitstrip, std::vector< double > &dehitphi, const TransientTrackingRecHit::ConstRecHitPointer &pRecHit, const TransientTrackingRecHit::ConstRecHitPointer &nRecHit, const TrajectoryStateOnSurface &nTsos, double &, double &, int &) const |
virtual | ~HICMuonUpdator () |
Private Member Functions | |
double | findPhiInVertex (const FreeTrajectoryState &fts, const double &rc, const GeomDetEnumerators::Location) const |
bool | linefit1 (const std::vector< double > &x, const std::vector< double > &y, const std::vector< double > &err, double &a, double &chi) const |
bool | linefit2 (const std::vector< double > &x, const std::vector< double > &y, const std::vector< double > &err, double &a, double &b, double &chi) const |
Private Attributes | |
const MagneticField * | field |
const cms::HICConst * | theHICConst |
double | thePhiWin |
double | theZWin |
double | zvert |
Definition at line 13 of file HICMuonUpdator.h.
HICMuonUpdator::HICMuonUpdator | ( | double & | la1, |
double & | la2, | ||
const MagneticField * | mf, | ||
const cms::HICConst * | hh | ||
) | [inline] |
Definition at line 16 of file HICMuonUpdator.h.
References field, theHICConst, thePhiWin, theZWin, cms::HICConst::zvert, and zvert.
virtual HICMuonUpdator::~HICMuonUpdator | ( | ) | [inline, virtual] |
Definition at line 18 of file HICMuonUpdator.h.
{}
double HICMuonUpdator::findPhiInVertex | ( | const FreeTrajectoryState & | fts, |
const double & | rc, | ||
const GeomDetEnumerators::Location | location | ||
) | const [private] |
Definition at line 315 of file HICMuonUpdator.cc.
References GeomDetEnumerators::barrel, GlobalTrajectoryParameters::charge(), gather_cfg::cout, GlobalTrajectoryParameters::momentum(), FreeTrajectoryState::parameters(), PV3DBase< T, PVType, FrameType >::perp(), PV3DBase< T, PVType, FrameType >::phi(), pi, pi2, GlobalTrajectoryParameters::position(), and PV3DBase< T, PVType, FrameType >::z().
{ double pi = 4.*atan(1.); // double twopi=8.*atan(1.); double acharge=fts.parameters().charge(); double phiclus=fts.parameters().position().phi(); double psi; if(location==GeomDetEnumerators::barrel){ double xrclus=fts.parameters().position().perp(); double xdouble=xrclus/(2.*rc); psi= phiclus+acharge*asin(xdouble); } else { double zclus=fts.parameters().position().z(); double pl=fts.parameters().momentum().z(); psi=phiclus+acharge*0.006*fabs(zclus)/fabs(pl); } double phic = psi-acharge*pi/2.; #ifdef CORRECT_DEBUG cout<<"Momentum of track="<<fts.parameters().momentum().perp()<< " rad of previous cluster= "<<fts.parameters().position().perp()<< " phi of previous cluster="<<fts.parameters().position().phi()<<endl; cout<<" position of the previous cluster="<<fts.parameters().position()<<endl; cout<<"radius of track="<<rc<<endl; cout<<"acharge="<<acharge<<endl; cout<<"psi="<<psi<<endl; cout<<"phic="<<phic<<" pi="<<pi<<" pi2="<<pi2<<endl; #endif return phic; }
bool HICMuonUpdator::linefit1 | ( | const std::vector< double > & | x, |
const std::vector< double > & | y, | ||
const std::vector< double > & | err, | ||
double & | a, | ||
double & | chi | ||
) | const [private] |
Definition at line 270 of file HICMuonUpdator.cc.
References gather_cfg::cout, i, and indexGen::s2.
{ double s1=0.; double s2=0.; bool fit; fit=false; #ifdef LINEFIT_DEBUG cout<<" linefit1::sizes="<<x.size()<<" "<<y.size()<<" "<<err.size()<<endl; #endif if(x.size() != y.size()) return fit; if(x.size() != err.size()) return fit; for (unsigned int i=0;i<x.size();i++){ s1=s1+(x[i]/err[i])*(y[i]/err[i]); s2=s2+(x[i]/err[i])*(x[i]/err[i]); #ifdef LINEFIT_DEBUG cout<<"linefit1="<<x[i]<<" "<<y[i]<<" "<<err[i]<<" "<<s1<<" "<<s2<<endl; #endif } co1=s1/s2; #ifdef LINEFIT_DEBUG cout<<"linefit1::co1,co2="<<co1<<endl; #endif // CHI2 chi2=0.; for (unsigned int i=0;i<x.size();i++){ chi2=chi2+(y[i]-co1*x[i])*(y[i]-co1*x[i])/(err[i]*err[i]); } chi2=chi2/x.size(); #ifdef LINEFIT_DEBUG cout<<"linefit1::chi2="<<chi2<<endl; #endif return fit=true; }
bool HICMuonUpdator::linefit2 | ( | const std::vector< double > & | x, |
const std::vector< double > & | y, | ||
const std::vector< double > & | err, | ||
double & | a, | ||
double & | b, | ||
double & | chi | ||
) | const [private] |
Definition at line 170 of file HICMuonUpdator.cc.
References gather_cfg::cout, and i.
{ double a00=0.; double a01=0.; double a10=0.; double a11=0.; double b0=0.; double b1=0.; bool fit; fit=false; #ifdef LINEFIT_DEBUG cout<<" linefit2::sizes="<<x.size()<<" "<<y.size()<<" "<<err.size()<<endl; cout<<" linefit2::a00 "<<a00<<" "<<a01<<" "<<a11<<" "<<b0<<" "<<b1<<endl; #endif if(x.size() != y.size()) return fit; if(x.size() != err.size()) return fit; for (unsigned int i=0;i<x.size();i++){ #ifdef LINEFIT_DEBUG cout<<" line2fit "<<a00<<" "<<x[i]/err[i]<<" "<<x[i]<<" "<<err[i]<<" second try "<<err[i]<<endl; #endif a00=a00+(x[i]/err[i])*(x[i]/err[i]); a01=a01+(x[i]/err[i])/err[i]; a10=a01; a11=a11+1./(err[i]*err[i]); b0=b0+(x[i]/err[i])*(y[i]/err[i]); b1=b1+(y[i]/err[i])/err[i]; #ifdef LINEFIT_DEBUG cout<<"linefit2="<<x[i]<<" "<<y[i]<<" "<<err[i]<<" "<<a00<<" "<<a01<<" "<<a11<<" "<<b0<<" "<<b1<<endl; #endif } double det=a00*a11-a01*a01; #ifdef LINEFIT_DEBUG cout<<" linefit2::det="<<det<<endl; #endif if(fabs(det)<0.00000001) return fit; co1=(b0*a11-b1*a01)/det; co2=(b1*a00-b0*a10)/det; // check if it is 90 degree track #ifdef LINEFIT_DEBUG cout<<" linefit2::Previous element= "<<y[x.size()-3]<<" "<<x[x.size()-3]<<endl; #endif if(y[x.size()-2]<14.) { #ifdef LINEFIT_DEBUG cout<<" check 90 degree track "<<endl; #endif if(fabs(x[x.size()-2]-x[x.size()-1])<0.1){ #ifdef LINEFIT_DEBUG cout<<" Redetermine line - 90 degree "<<endl; #endif if(fabs(x[x.size()-2]-x[x.size()-1])>0.0001){ co1=(y[x.size()-2]-y[x.size()-1])/(x[x.size()-2]-x[x.size()-1]); co2=y[x.size()-2]-co1*x[x.size()-2]; } else { co1=10000.; co2=-zvert*10000.; } } } #ifdef LINEFIT_DEBUG cout<<"linefit2::co1,co2="<<co1<<" "<<co2<<" size "<<x.size()<<endl; #endif // CHI2 chi2=0.; for (unsigned int i=0;i<x.size();i++){ double zdet=(y[i]-co2)/co1; chi2=chi2+(x[i]-zdet)*(x[i]-zdet)/(err[i]*err[i]); #ifdef LINEFIT_DEBUG cout<<"linefit2::chi2="<<chi2<<" err="<<err[i]<<" x[i]="<<x[i]<<" teor="<<zdet<<endl; #endif } // chi2 on degree of freedom chi2=chi2/x.size(); #ifdef LINEFIT_DEBUG cout<<" linefit2::chi2= "<<chi2<<endl; #endif return fit=true; }
TrajectoryStateOnSurface HICMuonUpdator::update | ( | const Trajectory & | mt, |
const TrajectoryStateOnSurface & | nTsos, | ||
const TrajectoryMeasurement & | ntm, | ||
const DetLayer * | layer, | ||
double & | chirz, | ||
double & | chirf | ||
) | const |
Definition at line 23 of file HICMuonUpdator.cc.
References Reference_intrackfit_cff::barrel, FreeTrajectoryState::charge(), gather_cfg::cout, TrajectoryStateOnSurface::freeTrajectoryState(), TrajectoryStateOnSurface::isValid(), TrajectoryMeasurement::layer(), DetLayer::location(), Trajectory::measurements(), pi, TrajectoryMeasurement::recHit(), mathSSE::sqrt(), funct::tan(), theta(), and PV3DBase< T, PVType, FrameType >::theta().
Referenced by HICTrajectoryBuilder::updateTrajectory().
{ double pi = 4.*atan(1.); double twopi=8.*atan(1.); TrajectoryStateOnSurface badtsos; if(!nTsos.isValid()) { std::cout<<" HICMuonUpdator::update:: can not start::initial tsos is not valid " <<std::endl; return badtsos; } // trajectory type vector<TrajectoryMeasurement> MTM=mt.measurements(); #ifdef DEBUG std::cout<<" HICMuonUpdator::update::MTM size "<<MTM.size()<<" vertex "<<zvert<<std::endl; std::cout<<" HICMuonUpdator::update::charge from trajectory"<<(MTM.back()).updatedState().freeTrajectoryState()->parameters().charge()<<std::endl; std::cout<<" HICMuonUpdator::update::charge predicted tsos"<<nTsos.freeTrajectoryState()->charge()<<std::endl; std::cout<<" HICMuonUpdator::update::momentum "<<(MTM.back()).updatedState().freeTrajectoryState()->parameters().momentum()<<std::endl; #endif vector<double> phihit,rhit,zhit,dphihit,drhit,dzhit,dzhitl,ehitphi,dehitphi,ehitstrip; double rvert=0.; double ezvert=0.014; const TransientTrackingRecHit::ConstRecHitPointer pRecHit=(MTM.back()).recHit(); const TransientTrackingRecHit::ConstRecHitPointer nRecHit=ntm.recHit(); // double acharge=(MTM.back()).updatedState().freeTrajectoryState()->parameters().charge(); // double acharge=nTsos.freeTrajectoryState()->charge(); GlobalVector pold=(MTM.back()).updatedState().freeTrajectoryState()->parameters().momentum(); double theta=pold.theta(); for(vector<TrajectoryMeasurement>::const_iterator ihit=MTM.begin();ihit!=MTM.end();ihit++){ // FreeTrajectoryState* ftshit = (*ihit).updatedState().freeTrajectoryState(); phihit.push_back((*ihit).recHit()->globalPosition().phi()); rhit.push_back((*ihit).recHit()->globalPosition().perp()); zhit.push_back((*ihit).recHit()->globalPosition().z()); GlobalPoint realhit = (*ihit).recHit()->globalPosition(); double phierror=sqrt((*ihit).recHit()->globalPositionError().phierr(realhit)); if(fabs(phierror)<0.0000001) { phierror=0.00008; } ehitphi.push_back(phierror); #ifdef UPDATOR_BARREL_DEBUG cout<<" Errors "<<phierror<<" "<<(*ihit).recHit()->globalPositionError().rerr(realhit)<<" "<<tan(theta)<<endl; #endif if((*ihit).layer()->location()==GeomDetEnumerators::barrel){ ehitstrip.push_back(sqrt((*ihit).recHit()->globalPositionError().czz())); } else{ ehitstrip.push_back(sqrt((*ihit).recHit()->globalPositionError().rerr(realhit)/fabs(tan(theta)))); } } phihit.push_back(nRecHit->globalPosition().phi()); rhit.push_back(nRecHit->globalPosition().perp()); zhit.push_back(nRecHit->globalPosition().z()); ehitphi.push_back(sqrt(nRecHit->globalPositionError().phierr(nRecHit->globalPosition()))); if(ntm.layer()->location()==GeomDetEnumerators::barrel){ ehitstrip.push_back(sqrt(nRecHit->globalPositionError().czz())); } else { ehitstrip.push_back(sqrt(nRecHit->globalPositionError().rerr(nRecHit->globalPosition()))/fabs(tan(theta))); } // add vertex rhit.push_back(rvert); zhit.push_back(zvert); ehitstrip.push_back(ezvert); for(vector<double>::const_iterator iphi=phihit.begin();iphi!=phihit.end()-1;iphi++){ double dpnew=fabs(*iphi-*(iphi+1)); if(dpnew>pi) dpnew=twopi-dpnew; #ifdef UPDATOR_BARREL_DEBUG cout<<" dphi=dpnew="<<dpnew<<" "<<*iphi<<" "<<*(iphi+1)<<endl; #endif dphihit.push_back(dpnew); } for(vector<double>::const_iterator ir=rhit.begin();ir!=rhit.end()-2;ir++){ double dpnew=fabs(*ir-*(ir+1)); #ifdef UPDATOR_BARREL_DEBUG cout<<" dr=dpnew="<<dpnew<<" "<<*ir<<" "<<*(ir+1)<<endl; #endif drhit.push_back(dpnew); } for(vector<double>::const_iterator iz=zhit.begin();iz!=zhit.end()-2;iz++){ double dpnew=*iz-*(iz+1); #ifdef UPDATOR_BARREL_DEBUG cout<<" dZ=dpnew="<<dpnew<<" "<<*iz<<" "<<*(iz+1)<<endl; #endif dzhit.push_back(fabs(dpnew)); dzhitl.push_back(dpnew); } dzhitl.push_back(*(zhit.end()-1)-zvert); for(vector<double>::const_iterator ie=ehitphi.begin();ie!=ehitphi.end()-1;ie++){ double dpnew=(*ie)*1.14; dehitphi.push_back(dpnew); } // //=================fit in rf and rz planes separately // int tType = 1; if ( (*(MTM.begin())).layer()->location()==GeomDetEnumerators::barrel){ // std::cout<<" Update barrel "<<std::endl; TrajectoryStateOnSurface tsos=updateBarrel(rhit, zhit, dphihit, drhit, ehitstrip, dehitphi, pRecHit, nRecHit, nTsos, chirz, chirf, tType); if(!tsos.isValid()) { #ifdef DEBUG std::cout<<" Trajectory is not valid "<<std::endl; #endif return badtsos; } return tsos; } else{ // std::cout<<" Update endcap "<<std::endl; TrajectoryStateOnSurface tsos=updateEndcap(rhit, zhit, dphihit, dzhit, ehitstrip, dehitphi, pRecHit, nRecHit, nTsos, chirz, chirf, tType); return tsos; } }
TrajectoryStateOnSurface HICMuonUpdator::updateBarrel | ( | std::vector< double > & | rhit, |
std::vector< double > & | zhit, | ||
std::vector< double > & | dphihit, | ||
std::vector< double > & | drhit, | ||
std::vector< double > & | ehitstrip, | ||
std::vector< double > & | dehitphi, | ||
const TransientTrackingRecHit::ConstRecHitPointer & | pRecHit, | ||
const TransientTrackingRecHit::ConstRecHitPointer & | nRecHit, | ||
const TrajectoryStateOnSurface & | nTsos, | ||
double & | , | ||
double & | , | ||
int & | |||
) | const |
Definition at line 347 of file HICMuonUpdator.cc.
References GlobalTrajectoryParameters::charge(), funct::cos(), gather_cfg::cout, TrajectoryStateOnSurface::freeTrajectoryState(), m, FreeTrajectoryState::parameters(), PV3DBase< T, PVType, FrameType >::perp(), PV3DBase< T, PVType, FrameType >::phi(), pi, funct::sin(), and TrajectoryStateOnSurface::surface().
{ // fit in (dphi dr), (dphi-dz) TrajectoryStateOnSurface badtsos; double pi = 4.*atan(1.); double twopi=8.*atan(1.); // cout<<" Update barrel begin "<<endl; double ch1,dphi,dr,ptnew; double co1,co2; bool fitrf,fitrz; // fit in (ZR)-coordinate fitrz=this->linefit2(rhit,zhit,ehitstrip,co1,co2,chirz); #ifdef UPDATOR_BARREL_DEBUG cout<<"UPDATE::BARREL::line fit rz= "<<fitrz<<" chirz="<<chirz<<endl; cout<<" co1="<<co1<<" co2="<<co2<<endl; #endif if(!fitrz) { #ifdef DEBUG cout<<"UPDATE::BARREL::line fit failed rz= "<<fitrz<<" chirz="<<chirz<<endl; #endif return badtsos; } if(dphihit.size()>1){ fitrf=this->linefit1(dphihit,drhit,dehitphi,ch1,chirf); #ifdef UPDATOR_BARREL_DEBUG cout<<"UPDATE::BARREL::line fit dphi= "<<fitrf<<" chirf="<<chirf<<endl; cout<<" ch1="<<ch1<<endl; #endif if(!fitrf) { #ifdef DEBUG cout<<"UPDATE::BARREL::line fit failed dphi= "<<fitrf<<" chirz="<<chirf<<endl; #endif return badtsos; } }else{ chirf = 0.; dphi=fabs(dphihit.back()); dr=fabs(drhit.back()); if(dphi > pi) dphi = twopi-dphi; ch1=dphi/dr; #ifdef UPDATOR_BARREL_DEBUG cout<<"UPDATE::BARREL::line calc dphi= "<<dphi<<" dr="<<dr<<" chirf="<<chirf<<endl; cout<<" ch1="<<ch1<<endl; #endif } // Updating trajectory ptnew=0.006/ch1; GlobalPoint xrhit = nRecHit->globalPosition(); TrackCharge aCharge = nTsos.freeTrajectoryState()->parameters().charge(); double phiclus=xrhit.phi(); double xrclus=xrhit.perp(); //double xzclus=xrhit.z(); double rc=100.*ptnew/(0.3*4.); double xdouble=xrclus/(2.*rc); double psi=phiclus-aCharge*asin(xdouble); double pznew=ptnew/co1; double znew=(xrclus-co2)/co1; double delphinew=fabs(0.006*drhit.back()/ptnew); double phinew=pRecHit->globalPosition().phi()+aCharge*delphinew; GlobalVector pnew(ptnew*cos(psi),ptnew*sin(psi),pznew); GlobalPoint xnew(xrclus*cos(phinew),xrclus*sin(phinew),znew); AlgebraicSymMatrix m(5,0); m(1,1)=ptnew; m(2,2)=thePhiWin, m(3,3)=theZWin, m(4,4)=thePhiWin, m(5,5)=theZWin; #ifdef UPDATOR_BARREL_DEBUG cout<< "MuUpdator::xnew=" << xnew<<endl; #endif TrajectoryStateOnSurface tsos( GlobalTrajectoryParameters(xnew, pnew, aCharge, field), CurvilinearTrajectoryError(m), nTsos.surface()); // cout<<" Update barrel end "<<xnew<<endl; return tsos; }
TrajectoryStateOnSurface HICMuonUpdator::updateEndcap | ( | std::vector< double > & | rhit, |
std::vector< double > & | zhit, | ||
std::vector< double > & | dphihit, | ||
std::vector< double > & | drhit, | ||
std::vector< double > & | ehitstrip, | ||
std::vector< double > & | dehitphi, | ||
const TransientTrackingRecHit::ConstRecHitPointer & | pRecHit, | ||
const TransientTrackingRecHit::ConstRecHitPointer & | nRecHit, | ||
const TrajectoryStateOnSurface & | nTsos, | ||
double & | , | ||
double & | , | ||
int & | |||
) | const |
Definition at line 445 of file HICMuonUpdator.cc.
References FreeTrajectoryState::charge(), funct::cos(), gather_cfg::cout, TrajectoryStateOnSurface::freeTrajectoryState(), m, PV3DBase< T, PVType, FrameType >::phi(), pi, funct::sin(), TrajectoryStateOnSurface::surface(), and PV3DBase< T, PVType, FrameType >::z().
{ // fit in (dphi dr), (dphi-dz) double pi = 4.*atan(1.); double twopi=8.*atan(1.); TrajectoryStateOnSurface badtsos; // cout<<" Update endcap begin "<<endl; double ch1,dphi,dr; double co1,co2; bool fitrf,fitrz; #ifdef UPDATOR_ENDCAP_DEBUG cout<<"updateEndcap switched on"<<endl; #endif // fit in (ZR)-coordinate fitrz=this->linefit2(rhit,zhit,ehitstrip,co1,co2,chirz); #ifdef UPDATOR_ENDCAP_DEBUG cout<<"line fit rz= "<<fitrz<<" chirz="<<chirz<<endl; cout<<" co1="<<co1<<" co2="<<co2<<endl; #endif if(!fitrz) { #ifdef DEBUG cout<<"UPDATE::ENDCAP::line fit failed rz= "<<fitrz<<" chirz="<<chirz<<endl; #endif return badtsos; } if(dphihit.size()>1){ fitrf=this->linefit1(dphihit,drhit,dehitphi,ch1,chirf); if(zhit.front()<0.) ch1=-1.*ch1; #ifdef UPDATOR_ENDCAP_DEBUG cout<<"MuUpdate::barrel::line fit dphi= "<<fitrf<<" chirf="<<chirf<<endl; cout<<" ch1="<<ch1<<endl; #endif if(!fitrf) { #ifdef DEBUG cout<<"UPDATE::ENDCAP::line fit failed dphi= "<<fitrf<<" chirz="<<chirf<<endl; #endif return badtsos; } }else{ dphi=fabs(dphihit.back()); dr=fabs(drhit.back()); if(dphi > pi) dphi = twopi-dphi; ch1=dphi/dr; if(zhit.front()<0.) ch1=-1.*ch1; chirf = 0.; #ifdef UPDATOR_ENDCAP_DEBUG cout<< "MuUpdate::barrel::linedphi=" << dphi <<" dz= "<< dr << " ch1= " <<ch1<<" pznew= "<<0.006/ch1<<endl; #endif } // Updating trajectory double pznew=0.006/ch1; // cout<<" point 1 "<<endl; GlobalPoint xrhit = nRecHit->globalPosition(); // cout<<" point 2 "<<endl; TrackCharge aCharge = nTsos.freeTrajectoryState()->charge(); // cout<<" point 3 "<<endl; double phiclus=xrhit.phi(); // cout<<" point 4 "<<endl; double xzclus=xrhit.z(); // cout<<" point 5 "<<endl; double psi=phiclus-aCharge*0.006*fabs(xzclus-zvert)/fabs(pznew); // cout<<" point 6 "<<endl; double ptnew=pznew*co1; // cout<<" point 7 "<<endl; double xrclus=co1*xzclus+co2; // cout<<" point 8 "<<endl; double delphinew=fabs(0.006*drhit.back()/pznew); // cout<<" point 9 "<<endl; double phinew=pRecHit->globalPosition().phi()+aCharge*delphinew; // cout<<" point 10 "<<endl; GlobalVector pnew(ptnew*cos(psi),ptnew*sin(psi),pznew); // cout<<" point 11 "<<endl; GlobalPoint xnew(xrclus*cos(phinew),xrclus*sin(phinew),xzclus); // OK changes. Start each time from the RealHit cluster. // // GlobalPoint xnew(xrhit.x(),xrhit.y(),xzclus); #ifdef UPDATOR_ENDCAP_DEBUG cout<< "MuUpdator::xnew=" << xnew<<endl; #endif AlgebraicSymMatrix m(5,0); m(1,1)=pznew; m(2,2)=thePhiWin, m(3,3)=theZWin, m(4,4)=thePhiWin, m(5,5)=theZWin; TrajectoryStateOnSurface tsos( GlobalTrajectoryParameters(xnew, pnew, aCharge, field), CurvilinearTrajectoryError(m), nTsos.surface()); // cout<< "Update endcap end "<<endl; return tsos; }
const MagneticField* HICMuonUpdator::field [private] |
Definition at line 49 of file HICMuonUpdator.h.
Referenced by HICMuonUpdator().
const cms::HICConst* HICMuonUpdator::theHICConst [private] |
Definition at line 50 of file HICMuonUpdator.h.
Referenced by HICMuonUpdator().
double HICMuonUpdator::thePhiWin [private] |
Definition at line 47 of file HICMuonUpdator.h.
Referenced by HICMuonUpdator().
double HICMuonUpdator::theZWin [private] |
Definition at line 48 of file HICMuonUpdator.h.
Referenced by HICMuonUpdator().
double HICMuonUpdator::zvert [private] |
Definition at line 46 of file HICMuonUpdator.h.
Referenced by HICMuonUpdator().