#include "MMcEvt.hxx" #include "MLog.h" #include "MLogManip.h" //========== // MMcEvt // // This class handles and contains the MonteCarlo information // with which the events have been generated // This information exists for each event. // // Note: All the azimuth Phi angles in this and other MC classes follow // the convention in the Corsika program (see Corsika manual). There, phi // is the azimuth of the momentum vector of particles, and is measured // from the north direction, anticlockwise (i.e, west is phi=90 degrees). // When it refers to the telescope orientation, it is the azimuth of a // vector along the telescope axis, going from the camera to the mirror. // So, fTelescopeTheta=90, fTelescopePhi = 0 means the telescope is // pointing horizontally towards South. For an explanation, see also // TDAS 02-11. // ClassImp(MMcEvt); using namespace std; MMcEvt::MMcEvt() { // // default constructor // set all values to zero fName = "MMcEvt"; fTitle = "Event info from Monte Carlo"; Clear(); } MMcEvt::MMcEvt( UInt_t fEvtNum, UShort_t usPId, Float_t fEner, Float_t fThi0, Float_t fFirTar, Float_t fzFirInt, Float_t fThet, Float_t fPhii, Float_t fCorD, Float_t fCorX, Float_t fCorY, Float_t fImpa, Float_t fTPhii, Float_t fTThet, Float_t fTFirst, Float_t fTLast, Float_t fL_Nmax, Float_t fL_t0, Float_t fL_tmax, Float_t fL_a, Float_t fL_b, Float_t fL_c, Float_t fL_chi2, UInt_t uiPin, UInt_t uiPat, UInt_t uiPre, UInt_t uiPco, UInt_t uiPelS, UInt_t uiPelC, Float_t elec, Float_t muon, Float_t other, Float_t fadc_jitter) { fName = "MMcEvt"; fTitle = "Event info from Monte Carlo"; // // constuctor II // // All datamembers are parameters. // // Don't use this memberfunction in analysis // fEvtNumber = fEvtNum; fPartId = usPId ; fEnergy = fEner ; fThick0 = fThi0; fFirstTarget = fFirTar; fZFirstInteraction = fzFirInt; fTheta = fThet ; fPhi = fPhii ; fCoreD = fCorD ; fCoreX = fCorX ; fCoreY = fCorY ; fImpact = fImpa ; fTelescopePhi = fTPhii; fTelescopeTheta = fTThet; fTimeFirst = fTFirst; fTimeLast = fTLast; fLongiNmax = fL_Nmax; fLongit0 = fL_t0; fLongitmax = fL_tmax; fLongia = fL_a; fLongib = fL_b; fLongic = fL_c; fLongichi2 = fL_chi2; fPhotIni = uiPin ; fPassPhotAtm = uiPat ; fPassPhotRef = uiPre ; fPassPhotCone = uiPco ; fPhotElfromShower = uiPelS ; fPhotElinCamera = uiPelC ; fElecCphFraction=elec; fMuonCphFraction=muon; fOtherCphFraction=other; fFadcTimeJitter = fadc_jitter; } MMcEvt::~MMcEvt() { // // default destructor // } void MMcEvt::Clear(Option_t *opt) { // // reset all values to values as nonsense as possible // fPartId = 0; fEnergy = -1; fTheta = 0; fPhi = 0; fCoreD = 0; fCoreX = 0; fCoreY = 0; fImpact = -1; fPhotIni = 0; fPassPhotAtm = 0; fPassPhotRef = 0; fPassPhotCone = 0; fPhotElfromShower = 0; fPhotElinCamera = 0; fElecCphFraction=0; fMuonCphFraction=0; fOtherCphFraction=0; } void MMcEvt::Fill( UInt_t fEvtNum, UShort_t usPId, Float_t fEner, Float_t fThi0, Float_t fFirTar, Float_t fzFirInt, Float_t fThet, Float_t fPhii, Float_t fCorD, Float_t fCorX, Float_t fCorY, Float_t fImpa, Float_t fTPhii, Float_t fTThet, Float_t fTFirst, Float_t fTLast, Float_t fL_Nmax, Float_t fL_t0, Float_t fL_tmax, Float_t fL_a, Float_t fL_b, Float_t fL_c, Float_t fL_chi2, UInt_t uiPin, UInt_t uiPat, UInt_t uiPre, UInt_t uiPco, UInt_t uiPelS, UInt_t uiPelC, Float_t elec, Float_t muon, Float_t other, Float_t fadc_jitter) { // // All datamembers are filled with the correspondin parameters. // // Don't use this memberfunction in analysis // fEvtNumber = fEvtNum; fPartId = usPId ; fEnergy = fEner ; fThick0 = fThi0; fFirstTarget = fFirTar; fZFirstInteraction = fzFirInt; fTheta = fThet ; fPhi = fPhii ; fCoreD = fCorD ; fCoreX = fCorX ; fCoreY = fCorY ; fImpact = fImpa ; fTelescopePhi = fTPhii; fTelescopeTheta = fTThet; fTimeFirst = fTFirst; fTimeLast = fTLast; fLongiNmax = fL_Nmax; fLongit0 = fL_t0; fLongitmax = fL_tmax; fLongia = fL_a; fLongib = fL_b; fLongic = fL_c; fLongichi2 = fL_chi2; fPhotIni = uiPin ; fPassPhotAtm = fPhotIni-uiPat ; fPassPhotRef = fPassPhotAtm-uiPre ; fPassPhotCone = uiPco ; fPhotElfromShower = uiPelS ; fPhotElinCamera = uiPelC ; fElecCphFraction=elec; fMuonCphFraction=muon; fOtherCphFraction=other; fFadcTimeJitter = fadc_jitter; } /* void MMcEvt::AsciiWrite(ofstream &fout) const { fout << fEnergy << " "; fout << fTheta ; } */ // -------------------------------------------------------------------------- // // Print the contents of the container. // // if you specify an option only the requested data members are printed: // allowed options are: // id, energy, impact // void MMcEvt::Print(Option_t *opt) const { // // print out the data member on screen // TString str(opt); if (str.IsNull()) { *fLog << all << endl; *fLog << "Monte Carlo output:" << endl; *fLog << " Particle Id: "; switch(fPartId) { case kGAMMA: *fLog << "Gamma" << endl; break; case kPROTON: *fLog << "Proton" << endl; break; case kHELIUM: *fLog << "Helium" << endl; break; } *fLog << " Energy: " << fEnergy << "GeV" << endl; *fLog << " Impactpar.: " << fImpact/100 << "m" << endl; *fLog << " Photoelectrons: " << fPhotElfromShower << endl; *fLog << endl; return; } if (str.Contains("id", TString::kIgnoreCase)) switch(fPartId) { case kGAMMA: *fLog << "Particle: Gamma" << endl; break; case kPROTON: *fLog << "Particle: Proton" << endl; break; case kHELIUM: *fLog << "Particle: Helium" << endl; break; } if (str.Contains("energy", TString::kIgnoreCase)) *fLog << "Energy: " << fEnergy << "GeV" << endl; if (str.Contains("impact", TString::kIgnoreCase)) *fLog << "Impact: " << fImpact << "cm" << endl; }