#include "MStarLight.hxx" MStarLight::MStarLight() { // // default constructor // fBrightness = 0. ; fTimeRange = TIMERANGE ; fBinsTrig = TRIGBINS ; fTrigShape = 0. ; fAmplTrig = 0. ; fFwhmTrig = 0. ; fBinsFadc = FADCBINS ; fFadcShape = 0. ; fIntegFadc = 0. ; fFwhmFadc = 0. ; for (Int_t i= 0; i< TRIGBINS ; i++) fTrig[i] = 0. ; for (Int_t i= 0; i= TRIGBINS ) idata = i - TRIGBINS ; fTrig[idata] = fTrig[idata] + ampl * fTrigResp[icount] ; icount++ ; } // // fill the FADC content // startbin = (Int_t) ( time / 0.6666666666 ); Int_t ichanfadc = 0 ; // // putting the response slices in the right sig slices. // Be carefull, because both slices have different widths. // // // Changed, Jan 2004, A. Moralejo: now the FADC does not integrate all // the signal within each FADC slice, but measures just the signal height // at one point, like the real FADC does. By default, each FADC slice // contains 5 bins of the response histogram(fFadcResp[45]). Warning: // do not change this unless you do the corresponding modifications also // in MFadc.cxx, or the signal and the noise photoelectrons will be treated // differently!! // for ( Int_t i = 0 ; i < 45; i += 5 ) { ichanfadc = (Int_t) ((startbin+i)/5) ; if ( (ichanfadc) < FADCBINS ) idata = ichanfadc ; else if ( ichanfadc >=FADCBINS ) idata = ichanfadc-FADCBINS ; fFadc[idata] += (ampl * fFadcResp[i] ) ; } } void MStarLight::ElecNoise ( Float_t noiseTrig, Float_t noiseFadc ) { // // putting some noise to the baseline // TRandom2 wuerfel( (UInt_t) (noiseTrig*100) ) ; for (Int_t i=0; i< TRIGBINS ; i++ ) { fTrig[i] += wuerfel.Gaus(0., noiseTrig ) ; } for (Int_t i=0; i< FADCBINS ; i++ ) { fFadc[i] += wuerfel.Gaus(0., noiseFadc ) ; } } Float_t MStarLight::GetTrig( Int_t i){ //------------------------------------------------------------------ // // It gets the value of the simualted trigger in the i bin // return fTrig[i]; } Float_t MStarLight::GetFadc( Int_t i){ //------------------------------------------------------------------ // // It gets the value of the simualted FADC signal in the i bin // return fFadc[i]; } void MStarLight::StoreHisto( char *filename) { Float_t baseline = 0. ; // first the histogramms for trigger // // the calculated trigger signal before baseline // TH1F trigresp ("trigresp", "Trigger Response", TRIGBINS, 0., TIMERANGE) ; for (Int_t i=0; i< TRIGBINS ; i++ ) { trigresp.SetBinContent(i, fTrig[i]) ; baseline = baseline + fTrig[i] ; } baseline = baseline / TRIGBINS ; TH1F trigbase ("trigbase", "Response after Baseline shift", TRIGBINS, 0., TIMERANGE) ; for (Int_t i=0; i< TRIGBINS ; i++ ) { trigbase.SetBinContent(i, fTrig[i]-baseline ) ; } TH1F trigdist ("trigdist", "Noise on the baseline", 1000, -25., 25. ) ; for (Int_t i=0; i< TRIGBINS ; i++ ) { trigdist.Fill( (Float_t) trigbase.GetBinContent(i) ) ; } // // second the histograms for the fadc // TH1F fadcresp ("fadcresp", "Fadc Response", FADCBINS, 0., TIMERANGE) ; for (Int_t i=0; i< FADCBINS ; i++ ) { fadcresp.SetBinContent(i, fFadc[i]) ; baseline = baseline + fFadc[i] ; } baseline = baseline / FADCBINS ; TH1F fadcbase ("fadcbase", "Fadc after Baseline shift", FADCBINS, 0., TIMERANGE) ; for (Int_t i=0; i< FADCBINS ; i++ ) { fadcbase.SetBinContent(i, fFadc[i]-baseline ) ; } TH1F fadcdist ("fadcdist", "Noise on fadc", 1000, -100., 100. ) ; for (Int_t i=0; i< FADCBINS ; i++ ) { fadcdist.Fill( (Float_t) fadcbase.GetBinContent(i) ) ; } TFile outfile( filename, "UPDATE" ) ; trigresp.Write() ; trigbase.Write() ; trigdist.Write() ; fadcresp.Write() ; fadcbase.Write() ; fadcdist.Write() ; outfile.Close() ; } void MStarLight::WriteBinary( char *filename) { // // write the things to the binary file FILE *datei ; datei = fopen ( filename, "w" ) ; if ( ! datei ) { cout << " Error: Can't open the file " << filename << endl ; exit (230) ; } Float_t version = VERSIONSR; // write them out fwrite ( &version, sizeof(Float_t), 1, datei ) ; fwrite ( &fBrightness, sizeof(Float_t), 1, datei ) ; fwrite ( &fTimeRange , sizeof(Float_t), 1, datei ) ; fwrite ( &fBinsTrig , sizeof(Float_t), 1, datei ) ; fwrite ( &fTrigShape , sizeof(Float_t), 1, datei ) ; fwrite ( &fAmplTrig , sizeof(Float_t), 1, datei ) ; fwrite ( &fFwhmTrig , sizeof(Float_t), 1, datei ) ; fwrite ( &fBinsFadc , sizeof(Float_t), 1, datei ) ; fwrite ( &fFadcShape , sizeof(Float_t), 1, datei ) ; fwrite ( &fIntegFadc , sizeof(Float_t), 1, datei ) ; fwrite ( &fFwhmFadc , sizeof(Float_t), 1, datei ) ; fwrite ( &fTrig , sizeof(Float_t), TRIGBINS, datei ) ; // We want to store the FADC signal taking into account the AC // coupling // // We calculate and substract the baseline // Float_t baseline = 0. ; for (Int_t i=0; i< FADCBINS ; i++ ) { baseline = baseline + fFadc[i] ; } baseline = baseline / FADCBINS ; for (Int_t i=0; i< FADCBINS ; i++ ) { fFadc[i]=fFadc[i]-baseline; } fwrite ( &fFadc , sizeof(Float_t), FADCBINS, datei ) ; fclose ( datei ) ; } void MStarLight::ReadBinary( char *filename) { // // read the things from the binary file FILE *datei ; datei = fopen ( filename, "r" ) ; if ( ! datei ) { cout << " Error: Can't open the file " << filename << endl ; cout<< " The database for the NSB may be too small" << endl; exit (230) ; } Float_t read_version; Float_t current_version=VERSIONSR; // Check taht we read the right version of the Database fread ( &read_version, sizeof(Float_t), 1, datei ) ; if(Int_t(read_version)!=Int_t(current_version)){ cout<<" Error: You are trying to read database VERSION "<< read_version<