/* This program reads the DAQ data files passed as argument using the monitoring library. It computes the average event size and populates local "./result.txt" file with the result. The program reports about its processing progress. Messages on stdout are exported to DAQ log system. DA for ZDC standalone pedestal runs Contact: Chiara.Oppedisano@to.infn.it Link: Run Type: STANDALONE_LASER_RUN DA Type: LDC Number of events needed: no constraint (tipically ~10^3) Input Files: Output Files: ZDCLaser.dat Trigger Types Used: Standalone Trigger */ #include #include #include // DATE #include #include #include //ROOT #include #include #include #include #include //AliRoot #include #include #include /* Main routine Arguments: list of DATE raw data files */ int main(int argc, char **argv) { TFitter *minuitFit = new TFitter(4); TVirtualFitter::SetFitter(minuitFit); int status = 0; /* log start of process */ printf("ZDC LASER program started\n"); /* check that we got some arguments = list of files */ if (argc<2) { printf("Wrong number of arguments\n"); return -1; } // --- Histograms for LASER runs // 20 signal channels + 2 reference PTMs // TH1F::AddDirectory(0); TH1F *hZDCsideC[10], *hZDCsideA[10]; char nhistZDCC[50], nhistZDCA[50]; for(Int_t j=0; j<10; j++){ if(j<5){ // ZNs sprintf(nhistZDCC,"ZNCtow%d",j); sprintf(nhistZDCA,"ZNAtow%d",j); } else if(j>=5 && j<10){ // ZPs sprintf(nhistZDCC,"ZPCtow%d",j); sprintf(nhistZDCA,"ZPAtow%d",j); } hZDCsideC[j] = new TH1F(nhistZDCC, nhistZDCC, 100, 0., 1000.); hZDCsideA[j] = new TH1F(nhistZDCA, nhistZDCA, 100, 0., 1000.); } TH1F *hPMRefsideC = new TH1F("hPMRefsideC","hPMRefsideC", 100,0.,1000.); TH1F *hPMRefsideA = new TH1F("hPMRefsideA","hPMRefsideA", 100,0.,1000.); /* open result file */ FILE *fp=NULL; fp=fopen("./result.txt","a"); if (fp==NULL) { printf("Failed to open file\n"); return -1; } FILE *mapFile4Shuttle; const char *mapfName = "ZDCChMapping.dat"; /* report progress */ daqDA_progressReport(10); /* init some counters */ int nevents_physics=0; int nevents_total=0; /* read the data files */ int n; for (n=1;nSelect("ZDC"); // --- Reading event header UInt_t evtype = reader->GetType(); //printf("\n\t ZDCPEDESTALda -> ev. type %d\n",evtype); //printf("\t ZDCPEDESTALda -> run # %d\n",reader->GetRunNumber()); // AliZDCRawStream *rawStreamZDC = new AliZDCRawStream(reader); /* use event - here, just write event id to result file */ eventT=event->eventType; Int_t ich=0, adcMod[48], adcCh[48], sigCode[48], det[48], sec[48]; if(eventT==START_OF_DATA){ if(!rawStreamZDC->Next()) printf(" \t No raw data found!! \n"); else{ while(rawStreamZDC->Next()){ if(rawStreamZDC->IsChMapping()){ adcMod[ich] = rawStreamZDC->GetADCModFromMap(ich); adcCh[ich] = rawStreamZDC->GetADCChFromMap(ich); sigCode[ich] = rawStreamZDC->GetADCSignFromMap(ich); det[ich] = rawStreamZDC->GetDetectorFromMap(ich); sec[ich] = rawStreamZDC->GetTowerFromMap(ich); ich++; } } } // -------------------------------------------------------- // --- Writing ascii data file for the Shuttle preprocessor mapFile4Shuttle = fopen(mapfName,"w"); for(Int_t i=0; i ch.%d mod %d, ch %d, code %d det %d, sec %d\n", // i,adcMod[i],adcCh[i],sigCode[i],det[i],sec[i]); } fclose(mapFile4Shuttle); } /* use event - here, just write event id to result file */ eventT=event->eventType; if(eventT==PHYSICS_EVENT){ // // *** To analyze LASER events you MUST have a pedestal data file!!! // *** -> check if a pedestal run has been analyzied FILE *filePed=NULL; filePed=fopen("./ZDCPedestal.dat","r"); if (filePed==NULL) { printf("\t ERROR!!! You MUST have a ZDCPedestal.dat file!!!\n"); return -1; } // 144 = 48 in-time + 48 out-of-time + 48 correlations Float_t readValues[2][144], MeanPed[44], MeanPedWidth[44], MeanPedOOT[44], MeanPedWidthOOT[44], CorrCoeff0[44], CorrCoeff1[44]; // for(int jj=0; jj<144; jj++){ for(int ii=0; ii<2; ii++){ fscanf(filePed,"%f",&readValues[ii][jj]); } if(jj<48){ MeanPed[jj] = readValues[0][jj]; MeanPedWidth[jj] = readValues[1][jj]; } else if(jj>48 && jj<96){ MeanPedOOT[jj-48] = readValues[0][jj]; MeanPedWidthOOT[jj-48] = readValues[1][jj]; } else if(jj>144){ CorrCoeff0[jj-96] = readValues[0][jj]; CorrCoeff1[jj-96] = readValues[1][jj];; } } // // --- Reading data header reader->ReadHeader(); const AliRawDataHeader* header = reader->GetDataHeader(); if(header) { UChar_t message = header->GetAttributes(); if(message & 0x20){ // DEDICATED LASER RUN //printf("\t STANDALONE_LASER_RUN raw data found\n"); continue; } else{ printf("\t NO STANDALONE_LASER_RUN raw data found\n"); return -1; } } else{ printf("\t ATTENTION! No Raw Data Header found!!!\n"); return -1; } if (!rawStreamZDC->Next()) printf(" \t No raw data found!! \n"); // // ----- Setting ch. mapping ----- for(Int_t jk=0; jk<48; jk++){ rawStreamZDC->SetMapADCMod(jk, adcMod[jk]); rawStreamZDC->SetMapADCCh(jk, adcCh[jk]); rawStreamZDC->SetMapADCSig(jk, sigCode[jk]); rawStreamZDC->SetMapDet(jk, det[jk]); rawStreamZDC->SetMapTow(jk, sec[jk]); } // while(rawStreamZDC->Next()){ Int_t index=-1; // Implemented only for HIGH gain chain if((rawStreamZDC->IsADCDataWord()) && (rawStreamZDC->GetADCGain()==0)){ index = rawStreamZDC->GetADCChannel(); Float_t Pedestal = MeanPed[index]; Float_t CorrADC = rawStreamZDC->GetADCValue() - Pedestal; if(rawStreamZDC->GetSector(0)==1){ if(rawStreamZDC->GetSector(1)==5) hPMRefsideC->Fill(CorrADC); else hZDCsideC[rawStreamZDC->GetSector(1)]->Fill(CorrADC); } else if(rawStreamZDC->GetSector(0)==2){ hZDCsideC[rawStreamZDC->GetSector(1)+5]->Fill(CorrADC); } else if(rawStreamZDC->GetSector(0)==4){ if(rawStreamZDC->GetSector(1)==5) hPMRefsideA->Fill(CorrADC); else hZDCsideA[rawStreamZDC->GetSector(1)]->Fill(CorrADC); } else if(rawStreamZDC->GetSector(0)==5){ hZDCsideA[rawStreamZDC->GetSector(1)+5]->Fill(CorrADC); } }//IsADCDataWord() // } // nevents_physics++; // delete reader; delete rawStreamZDC; }//(if PHYSICS_EVENT) nevents_total++; /* free resources */ free(event); } } /* Analysis of the histograms */ // Int_t maxBinC[10], maxBinA[10], maxBinRef[2]; Int_t nBinC[10], nBinA[10], nBinRef[2]; Float_t xMaxC[10], xMaxA[10], xMaxRef[2]; Float_t maxXvalC[10], maxXvalA[10], maxXvalRef[2]; Float_t xlowC[10], xlowA[10], xlowRef[10]; TF1 *funA[10], *funC[10], *funRef[2]; // Float_t meanC[10], meanA[10], meanRef[2]; Float_t sigmaA[10], sigmaC[10], sigmaRef[10]; // for(Int_t k=0; k<10; k++){ maxBinC[k] = hZDCsideC[k]->GetMaximumBin(); nBinC[k] = (hZDCsideC[k]->GetXaxis())->GetNbins(); xMaxC[k] = (hZDCsideC[k]->GetXaxis())->GetXmax(); maxXvalC[k] = maxBinC[k]*xMaxC[k]/nBinC[k]; // if(maxXvalC[k]-100.<0.) {xlowC[k]=0.;} else xlowC[k] = maxXvalC[k]; hZDCsideC[k]->Fit("gaus","Q","",xlowC[k],maxXvalC[k]+100.); funC[k] = hZDCsideC[k]->GetFunction("gaus"); meanC[k] = (Float_t) (funC[k]->GetParameter(1)); sigmaC[k] = (Float_t) (funC[k]->GetParameter(2)); // maxBinA[k] = hZDCsideA[k]->GetMaximumBin(); nBinA[k] = (hZDCsideA[k]->GetXaxis())->GetNbins(); xMaxA[k] = (hZDCsideA[k]->GetXaxis())->GetXmax(); maxXvalA[k] = maxBinA[k]*xMaxA[k]/nBinA[k]; // if(maxXvalA[k]-100.<0.) {xlowA[k]=0.;} else xlowA[k] = maxXvalA[k]; hZDCsideA[k]->Fit("gaus","Q","",xlowA[k],maxXvalA[k]+100.); funA[k] = hZDCsideC[k]->GetFunction("gaus"); meanA[k] = (Float_t) (funA[k]->GetParameter(1)); sigmaA[k] = (Float_t) (funA[k]->GetParameter(2)); } // maxBinRef[0] = hPMRefsideC->GetMaximumBin(); nBinRef[0] = (hPMRefsideC->GetXaxis())->GetNbins(); xMaxRef[0] = (hPMRefsideC->GetXaxis())->GetXmax(); maxXvalRef[0] = maxBinRef[0]*xMaxRef[0]/nBinRef[0]; // if(maxXvalRef[0]-100.<0.) {xlowRef[0]=0.;} else xlowRef[0] = maxXvalRef[0]; hPMRefsideC->Fit("gaus","Q","",xlowRef[0],maxXvalRef[0]+100.); funRef[0] = hPMRefsideC->GetFunction("gaus"); meanRef[0] = (Float_t) (funRef[0]->GetParameter(1)); sigmaRef[0] = (Float_t) (funRef[0]->GetParameter(2)); // maxBinRef[1] = hPMRefsideA->GetMaximumBin(); nBinRef[1] = (hPMRefsideA->GetXaxis())->GetNbins(); xMaxRef[1] = (hPMRefsideA->GetXaxis())->GetXmax(); maxXvalRef[1] = maxBinRef[1]*xMaxRef[1]/nBinRef[1]; // if(maxXvalRef[1]-100.<0.) {xlowRef[1]=0.;} else xlowRef[1] = maxXvalRef[1]; hPMRefsideA->Fit("gaus","Q","",xlowRef[1],maxXvalRef[1]+100.); funRef[1] = hPMRefsideA->GetFunction("gaus"); meanRef[1] = (Float_t) (funRef[1]->GetParameter(1)); sigmaRef[1] = (Float_t) (funRef[1]->GetParameter(2)); // FILE *fileShuttle; const char *fName = "ZDCLaser.dat"; fileShuttle = fopen(fName,"w"); for(Int_t i=0; i<10; i++) fprintf(fileShuttle,"\t%f\t%f\n",meanC[i], sigmaC[i]); for(Int_t i=0; i<10; i++) fprintf(fileShuttle,"\t%f\t%f\n",meanA[i], sigmaA[i]); for(Int_t i=0; i<2; i++) fprintf(fileShuttle,"\t%f\t%f\n",meanRef[i], sigmaRef[i]); // fclose(fileShuttle); // for(Int_t j=0; j<10; j++){ delete hZDCsideC[j]; delete hZDCsideA[j]; delete hPMRefsideC; delete hPMRefsideA; } //delete minuitFit; TVirtualFitter::SetFitter(0); /* write report */ fprintf(fp,"Run #%s, received %d physics events out of %d\n",getenv("DATE_RUN_NUMBER"),nevents_physics,nevents_total); /* close result file */ fclose(fp); /* report progress */ daqDA_progressReport(90); /* store the result file on FES */ status = daqDA_FES_storeFile(mapfName,"ZDCCHMAPPING_data"); if(status){ printf("Failed to export file : %d\n",status); return -1; } // status = daqDA_FES_storeFile(fName,"ZDCLASER_data"); if(status){ printf("Failed to export file : %d\n",status); return -1; } /* report progress */ daqDA_progressReport(100); return status; }