[u/mrichter/AliRoot.git] / ZDC / ZDCCALIBMBda.cxx

/*

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 CALIBRATION_MB runs

Contact: Chiara.Oppedisano@to.infn.it
Link: 
Run Type: CALIBRATION_MB_RUN
DA Type: LDC
Number of events needed: at least 10^4
Input Files: ZDCPedestal.dat
Output Files: ZDCMBCalib.root, ZDCChMapping.dat
Trigger Types Used: Standalone Trigger

*/
#define PEDDATA_FILE  "ZDCPedestal.dat"
#define MAPDATA_FILE  "ZDCChMapping.dat"
#define ENCALIBDATA_FILE   "ZDCEnergyCalib.dat"
#define MBCALIBDATA_FILE   "ZDCMBCalib.root"

#include <stdio.h>
#include <Riostream.h>
#include <Riostream.h>

// DATE
#include <daqDA.h>
#include <event.h>
#include <monitor.h>

//ROOT
#include <TROOT.h>
#include <TPluginManager.h>
#include <TH1F.h>
#include <TH2F.h>
#include <TProfile.h>
#include <TF1.h>
#include <TFile.h>
#include <TFitter.h>
#include "TMinuitMinimizer.h"

//AliRoot
#include <AliRawReaderDate.h>
#include <AliRawEventHeaderBase.h>
#include <AliZDCRawStream.h>


/* Main routine
      Arguments: 
      1- monitoring data source
*/
int main(int argc, char **argv) {
  

  gROOT->GetPluginManager()->AddHandler("TVirtualStreamerInfo",
					"*",
					"TStreamerInfo",
					"RIO",
					"TStreamerInfo()"); 

  TMinuitMinimizer m; 
  gROOT->GetPluginManager()->AddHandler("ROOT::Math::Minimizer", "Minuit","TMinuitMinimizer",
      "Minuit", "TMinuitMinimizer(const char *)");
  TVirtualFitter::SetDefaultFitter("Minuit");

  int status = 0;
  int const kNModules = 10;
  int const kNChannels = 24;
  int const kNScChannels = 32;
  Int_t kFirstADCGeo=0, kLastADCGeo=1;
      
  Int_t iMod=-1;
  Int_t modGeo[kNModules], modType[kNModules],modNCh[kNModules];
  for(Int_t kl=0; kl<kNModules; kl++){
     modGeo[kl]=modType[kl]=modNCh[kl]=0;
  }
  
  Int_t ich=0;
  Int_t adcMod[2*kNChannels], adcCh[2*kNChannels], sigCode[2*kNChannels];
  Int_t det[2*kNChannels], sec[2*kNChannels];
  for(Int_t y=0; y<2*kNChannels; y++){
    adcMod[y]=adcCh[y]=sigCode[y]=det[y]=sec[y]=0;
  }
  
  Int_t iScCh=0;
  Int_t scMod[kNScChannels], scCh[kNScChannels], scSigCode[kNScChannels];
  Int_t scDet[kNScChannels], scSec[kNScChannels];
  for(Int_t y=0; y<kNScChannels; y++){
    scMod[y]=scCh[y]=scSigCode[y]=scDet[y]=scSec[y]=0;
  }
      
  Int_t itdcCh=0;
  Int_t tdcMod[kNScChannels], tdcCh[kNScChannels], tdcSigCode[kNScChannels];
  Int_t tdcDet[kNScChannels], tdcSec[kNScChannels];
  for(Int_t y=0; y<kNScChannels; y++){
    tdcMod[y]=tdcCh[y]=tdcSigCode[y]=tdcDet[y]=tdcSec[y]=-1;
  }

  /* log start of process */
  printf("ZDC EMD program started\n");  

  /* check that we got some arguments = list of files */
  if (argc<2) {
    printf("Wrong number of arguments\n");
    return -1;
  }
  
  // --- Preparing histos for EM dissociation spectra
  //
  TH2F * hZDCvsZEM  = new TH2F("hZDCvsZEM","EZDCTot vs. EZEM",100,0.,8.,100,0.,800.);
  TH2F * hZDCCvsZEM = new TH2F("hZDCCvsZEM","EZDCC vs. EZEM",100,0.,8.,100,0.,400.);
  TH2F * hZDCAvsZEM = new TH2F("hZDCAvsZEM","EZDCA vs. EZEM",100,0.,8.,100,0.,400.);
  
  /* open result file */
  FILE *fp=NULL;
  fp=fopen("./result.txt","a");
  if (fp==NULL) {
    printf("Failed to open file\n");
    return -1;
  }
  
  FILE *mapFile4Shuttle;

  // *** To analyze CALIBRATION_MB events a pedestal data file is needed!!!
  // *** -> check if a pedestal run has been analyzed
  int read = 0;
  read = daqDA_DB_getFile(PEDDATA_FILE,PEDDATA_FILE);
  if(read){
    printf("\t ERROR!!! ZDCPedestal.dat file NOT FOUND in DAQ db!!!\n");
    return -1;
  }
  else printf("\t ZDCPedestal.dat file retrieved from DAQ db\n");
  
  FILE *filePed = fopen(PEDDATA_FILE,"r");
  if (filePed==NULL) {
    printf("\t ERROR!!! Can't open ZDCPedestal.dat file!!!\n");
    return -1;
  }

  // 144 = 48 in-time + 48 out-of-time + 48 correlations
  Float_t readValues[2][6*kNChannels];
  Float_t MeanPedhg[kNChannels], MeanPedlg[kNChannels];
  Float_t CorrCoeff0[2*kNChannels], CorrCoeff1[2*kNChannels];
  // ***************************************************
  //   Unless we have a narrow correlation to fit we
  //	don't fit and store in-time vs. out-of-time
  //	histograms -> mean pedstal subtracted!!!!!!
  // ***************************************************
  //
  for(int jj=0; jj<6*kNChannels; jj++){
    for(int ii=0; ii<2; ii++){
       fscanf(filePed,"%f",&readValues[ii][jj]);
    }
    if(jj<kNChannels){
      MeanPedhg[jj] = readValues[0][jj];
      //printf("\t MeanPedhg[%d] = %1.1f\n",jj, MeanPedhg[jj]);
    }
    else if(jj>=kNChannels && jj<2*kNChannels){
      MeanPedlg[jj-kNChannels] = readValues[0][jj];
      //printf("\t MeanPedlg[%d] = %1.1f\n",jj-kNChannels, MeanPedlg[jj-kNChannels]);
    }
    else if(jj>4*kNChannels){
      CorrCoeff0[jj-4*kNChannels] = readValues[0][jj]; 
      CorrCoeff1[jj-4*kNChannels] = readValues[1][jj];;
    }
  }

  /* report progress */
  daqDA_progressReport(10);
  
  FILE *fileEnCal = fopen(ENCALIBDATA_FILE,"r");
  if(fileEnCal==NULL) {
    printf("\t ERROR!!! Can't open ZDCEnergyCalib.dat file!!!\n");
    return -1;
  }
  
  Float_t calibCoeff[6];
  for(Int_t irow=0; irow<6; irow++){
     fscanf(fileEnCal,"%f",&calibCoeff[irow]);
  }

  /* init some counters */
  int nevents_physics=0;
  int nevents_total=0;

  struct eventHeaderStruct *event;
  eventTypeType eventT;

  /* read the data files */
  int n;
  for(n=1;n<argc;n++){
   
    status=monitorSetDataSource( argv[n] );
    if (status!=0) {
      printf("monitorSetDataSource() failed : %s\n",monitorDecodeError(status));
      return -1;
    }

    /* report progress */
    /* in this example, indexed on the number of files */
    daqDA_progressReport(10+80*n/argc);

    /* read the file */
    for(;;){

      /* get next event */
      status=monitorGetEventDynamic((void **)&event);
      if(status==MON_ERR_EOF) break; /* end of monitoring file has been reached */
      if(status!=0) {
        printf("monitorGetEventDynamic() failed : %s\n",monitorDecodeError(status));
        return -1;
      }

      /* retry if got no event */
      if(event==NULL) {
        break;
      }
      
      // Initalize raw-data reading and decoding
      AliRawReader *reader = new AliRawReaderDate((void*)event);
      reader->Select("ZDC");
      // --- Reading event header
      //UInt_t evtype = reader->GetType();
      //printf("\n\t ZDCEMDda -> ev. type %d\n",evtype);
      //printf("\t ZDCEMDda -> run # %d\n",reader->GetRunNumber());
      //
      AliZDCRawStream *rawStreamZDC = new AliZDCRawStream(reader);
        

      /* use event - here, just write event id to result file */
      eventT=event->eventType;
      
      if(eventT==START_OF_DATA){
	  		
	rawStreamZDC->SetSODReading(kTRUE);
	
	// --------------------------------------------------------
	// --- Writing ascii data file for the Shuttle preprocessor
        mapFile4Shuttle = fopen(MAPDATA_FILE,"w");
	if(!rawStreamZDC->Next()) printf(" \t No raw data found!! \n");
        else{
	  while((rawStreamZDC->Next())){
            if(rawStreamZDC->IsHeaderMapping()){ // mapping header
	       iMod++;
	       modGeo[iMod]  = rawStreamZDC->GetADCModule();
	       modType[iMod] = rawStreamZDC->GetModType();
	       modNCh[iMod]  = rawStreamZDC->GetADCNChannels();
	    }
            if(rawStreamZDC->IsChMapping()){ 
	      if(modType[iMod]==1){ // ADC mapping ----------------------
	        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++;
	      }
	      else if(modType[iMod]==2){ //VME scaler mapping --------------------
	        scMod[iScCh]     = rawStreamZDC->GetScalerModFromMap(iScCh);
	        scCh[iScCh]      = rawStreamZDC->GetScalerChFromMap(iScCh);
	        scSigCode[iScCh] = rawStreamZDC->GetScalerSignFromMap(iScCh);
	        scDet[iScCh]     = rawStreamZDC->GetScDetectorFromMap(iScCh);
	        scSec[iScCh]     = rawStreamZDC->GetScTowerFromMap(iScCh);
	        iScCh++;
	      }
	      else if(modType[iMod]==6 && modGeo[iMod]==4){ // ZDC TDC mapping --------------------
	        tdcMod[itdcCh]     = rawStreamZDC->GetTDCModFromMap(itdcCh);
	        tdcCh[itdcCh]      = rawStreamZDC->GetTDCChFromMap(itdcCh);
	        tdcSigCode[itdcCh] = rawStreamZDC->GetTDCSignFromMap(itdcCh);
	        itdcCh++;
	      }
	    }
 	  }
	  // Writing data on output FXS file
	  for(Int_t is=0; is<2*kNChannels; is++){
	     fprintf(mapFile4Shuttle,"\t%d\t%d\t%d\t%d\t%d\t%d\n",
	       is,adcMod[is],adcCh[is],sigCode[is],det[is],sec[is]);
    	     //printf("  CalibMB DA -> %d ADC: mod %d ch %d, code %d det %d, sec %d\n",
	     //  is,adcMod[is],adcCh[is],sigCode[is],det[is],sec[is]);
	  }
	  for(Int_t is=0; is<kNScChannels; is++){
	     fprintf(mapFile4Shuttle,"\t%d\t%d\t%d\t%d\t%d\t%d\n",
	       is,scMod[is],scCh[is],scSigCode[is],scDet[is],scSec[is]);
 	     //printf("  CalibMB DA -> %d Scaler: mod %d ch %d, code %d det %d, sec %d\n",
	     //  is,scMod[is],scCh[is],scSigCode[is],scDet[is],scSec[is]);
	  }
	  for(Int_t is=0; is<kNScChannels; is++){
	     fprintf(mapFile4Shuttle,"\t%d\t%d\t%d\t%d\n",
	       is,tdcMod[is],tdcCh[is],tdcSigCode[is]);
 	     //if(tdcMod[is]!=-1) printf("  Mapping DA -> %d TDC: mod %d ch %d, code %d\n",
	     //  is,tdcMod[is],tdcCh[is],tdcSigCode[is]);
	  }
	  for(Int_t is=0; is<kNModules; is++){
	     fprintf(mapFile4Shuttle,"\t%d\t%d\t%d\n",
	     modGeo[is],modType[is],modNCh[is]);
	     //printf("  CalibMB DA -> Module mapping: geo %d type %d #ch %d\n",
	     //  modGeo[is],modType[is],modNCh[is]);
	  }
	  
	}
        fclose(mapFile4Shuttle);
      }// SOD event
    
    if(eventT==PHYSICS_EVENT){
      // --- Reading data header
      reader->ReadHeader();
      const AliRawDataHeader* header = reader->GetDataHeader();
      if(header){
         UChar_t message = header->GetAttributes();
	 if((message & 0xf0) == 0x60){ // DEDICATED CALIBRATION MB RUN
	    //printf("\t CALIBRATION_MB_RUN raw data found\n");
	    continue;
	 }
	 else{
	    //printf("\t NO CALIBRAION_MB_RUN raw data found\n");
	    //return -1;
	 }
      }
      else{
         printf("\t ATTENTION! No Raw Data Header found!!!\n");
         return -1;
      }
      
      rawStreamZDC->SetSODReading(kTRUE);

      if (!rawStreamZDC->Next()) printf(" \t No raw data found!! ");
      //
      // ----- Setting ch. mapping -----
      for(Int_t jk=0; jk<2*kNChannels; 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]);
      }
      //
      Float_t rawZNC=0., rawZPC=0., rawZNA=0., rawZPA=0., rawZEM1=0., rawZEM2=0.;
      Float_t corrZNC=0., corrZPC=0., corrZNA=0., corrZPA=0., corrZEM1=0.,corrZEM2=0.;
      Float_t calZNC=0., calZPC=0., calZNA=0., calZPA=0., calZEM1=0., calZEM2=0.;
      Float_t calZDCTot=0., calZDCC=0., calZDCA=0., calZEM=0.;
      //
      while(rawStreamZDC->Next()){
	Int_t detector = rawStreamZDC->GetSector(0);
	Int_t quad = rawStreamZDC->GetSector(1);
  	Int_t index=-1;
        
	if( (rawStreamZDC->IsADCDataWord()) && !(rawStreamZDC->IsUnderflow())
	     && !(rawStreamZDC->IsOverflow()) && (detector!=-1)
	     && ((rawStreamZDC->GetADCGain()) == 0) && // Selecting HIGH RES ch.s
             (rawStreamZDC->GetADCModule()>=kFirstADCGeo) && (rawStreamZDC->GetADCModule()<=kLastADCGeo)){

	    //printf("  IsADCWord %d, IsUnderflow %d, IsOverflow %d\n",
	    //  rawStreamZDC->IsADCDataWord(),rawStreamZDC->IsUnderflow(),rawStreamZDC->IsOverflow());
	  
 	    if(quad!=5){ // Physics signals
    	      if(detector==1)      index = quad;   // *** ZNC
	      else if(detector==2) index = quad+5; // *** ZPC
	      else if(detector==3) index = quad+9; // *** ZEM
	      else if(detector==4) index = quad+12;// *** ZNA
	      else if(detector==5) index = quad+17;// *** ZPA
	    }
	    else continue;
	    //
	    if(index==-1) printf("ERROR in ZDCCALIBMBda.cxx -> det %d quad %d index %d ADC %d\n", 
	      detector, quad, index, rawStreamZDC->GetADCValue());
	    
	    // Mean pedestal subtraction 
	    Float_t Pedestal = MeanPedhg[index];
	    // Pedestal subtraction from correlation with out-of-time signals
	    //Float_t Pedestal = CorrCoeff0[index]+CorrCoeff1[index]*MeanPedOOT[index];
            //
	    if(index!=-1 && quad!=5){ 
	      //
	      if(detector==1){
	       rawZNC  = (Float_t) rawStreamZDC->GetADCValue();
	       corrZNC = rawZNC - Pedestal;
	      }
	      else if(detector==2){
	       rawZPC  = (Float_t) rawStreamZDC->GetADCValue();
	       corrZPC = rawZPC - Pedestal;
	      }
	      else if(detector==3){
	       if(quad==1){
	         rawZEM1  = (Float_t) rawStreamZDC->GetADCValue();
	         corrZEM1 = (rawStreamZDC->GetADCValue()) - Pedestal;
	       }
	       else{
	         rawZEM2  = (Float_t) rawStreamZDC->GetADCValue();
	         corrZEM2 = (rawStreamZDC->GetADCValue()) - Pedestal;
	       }
	      }
	      else if(detector==4){
	       rawZNA  = (Float_t) rawStreamZDC->GetADCValue();
	       corrZNA = rawZNA - Pedestal;
	      }
	      else if(detector==5){
	       rawZPA  = (Float_t) rawStreamZDC->GetADCValue();
	       corrZPA = rawZPA - Pedestal;
	      }
	    }
	}//IsADCDataWord()
	
       } // Next()
       
       calZNC = calibCoeff[0]*corrZNC;
       calZPC = calibCoeff[1]*corrZPC;
       calZNA = calibCoeff[2]*corrZNA;
       calZPA = calibCoeff[3]*corrZPA;
       calZEM1 = calibCoeff[4]*corrZEM1;
       calZEM2 = calibCoeff[4]*corrZEM2;
       calZDCTot = calZNC+calZPC+calZPA+calZNA;
       calZDCC = calZNC+calZPC;
       calZDCA = calZNA+calZPA;
       calZEM = calZEM1+calZEM2;
       //
       hZDCvsZEM ->Fill(calZDCTot/1000, calZEM/1000);
       hZDCCvsZEM->Fill(calZDCC/1000, calZEM/1000);
       hZDCAvsZEM->Fill(calZDCA/1000, calZEM/1000);

       nevents_physics++;
    }//(if PHYSICS_EVENT)
    
    nevents_total++;

   }

   /* free resources */
   free(event);
  }
    
  //
  TFile *histofile = new TFile(MBCALIBDATA_FILE,"RECREATE");
  histofile->cd();
  hZDCvsZEM ->Write();
  hZDCCvsZEM->Write();
  hZDCAvsZEM->Write();
  histofile->Close();
  
  if(hZDCvsZEM)  delete hZDCvsZEM ;
  if(hZDCCvsZEM) delete hZDCCvsZEM;
  if(hZDCAvsZEM) delete hZDCAvsZEM;
  
  /* 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(MAPDATA_FILE, "MAPPING");
  if(status){
    printf("Failed to export file : %d\n",status);
    return -1;
  }
  //
  status = daqDA_FES_storeFile(MBCALIBDATA_FILE, "MBCALIB");
  if(status){
    printf("Failed to export file : %d\n",status);
    return -1;
  }
 
  /* report progress */
  daqDA_progressReport(100);

  return status;
}
Commit	Line	Data
2804fead	1	/*
	2
	3	This program reads the DAQ data files passed as argument using the monitoring library.
	4
	5	It computes the average event size and populates local "./result.txt" file with the
	6	result.
	7
	8	The program reports about its processing progress.
	9
	10	Messages on stdout are exported to DAQ log system.
	11
	12	DA for ZDC standalone CALIBRATION_MB runs
	13
	14	Contact: Chiara.Oppedisano@to.infn.it
	15	Link:
	16	Run Type: CALIBRATION_MB_RUN
	17	DA Type: LDC
	18	Number of events needed: at least 10^4
	19	Input Files: ZDCPedestal.dat
	20	Output Files: ZDCMBCalib.root, ZDCChMapping.dat
	21	Trigger Types Used: Standalone Trigger
	22
	23	*/
	24	#define PEDDATA_FILE "ZDCPedestal.dat"
	25	#define MAPDATA_FILE "ZDCChMapping.dat"
3fb9b0f3	26	#define ENCALIBDATA_FILE "ZDCEnergyCalib.dat"
2804fead	27	#define MBCALIBDATA_FILE "ZDCMBCalib.root"
	28
	29	#include <stdio.h>
	30	#include <Riostream.h>
	31	#include <Riostream.h>
	32
	33	// DATE
	34	#include <daqDA.h>
	35	#include <event.h>
	36	#include <monitor.h>
	37
	38	//ROOT
	39	#include <TROOT.h>
	40	#include <TPluginManager.h>
	41	#include <TH1F.h>
	42	#include <TH2F.h>
	43	#include <TProfile.h>
	44	#include <TF1.h>
	45	#include <TFile.h>
	46	#include <TFitter.h>
	47	#include "TMinuitMinimizer.h"
	48
	49	//AliRoot
	50	#include <AliRawReaderDate.h>
	51	#include <AliRawEventHeaderBase.h>
	52	#include <AliZDCRawStream.h>
	53
	54
	55	/* Main routine
	56	Arguments:
	57	1- monitoring data source
	58	*/
	59	int main(int argc, char **argv) {
	60
	61
	62	gROOT->GetPluginManager()->AddHandler("TVirtualStreamerInfo",
	63	"*",
	64	"TStreamerInfo",
	65	"RIO",
	66	"TStreamerInfo()");
	67
	68	TMinuitMinimizer m;
	69	gROOT->GetPluginManager()->AddHandler("ROOT::Math::Minimizer", "Minuit","TMinuitMinimizer",
	70	"Minuit", "TMinuitMinimizer(const char *)");
	71	TVirtualFitter::SetDefaultFitter("Minuit");
	72
	73	int status = 0;
198f612a	74	int const kNModules = 10;
2804fead	75	int const kNChannels = 24;
2804fead	76	int const kNScChannels = 32;
8785e578	77	Int_t kFirstADCGeo=0, kLastADCGeo=1;
198f612a	78
	79	Int_t iMod=-1;
	80	Int_t modGeo[kNModules], modType[kNModules],modNCh[kNModules];
	81	for(Int_t kl=0; kl<kNModules; kl++){
	82	modGeo[kl]=modType[kl]=modNCh[kl]=0;
	83	}
	84
	85	Int_t ich=0;
	86	Int_t adcMod[2kNChannels], adcCh[2kNChannels], sigCode[2*kNChannels];
	87	Int_t det[2kNChannels], sec[2kNChannels];
	88	for(Int_t y=0; y<2*kNChannels; y++){
	89	adcMod[y]=adcCh[y]=sigCode[y]=det[y]=sec[y]=0;
	90	}
	91
	92	Int_t iScCh=0;
	93	Int_t scMod[kNScChannels], scCh[kNScChannels], scSigCode[kNScChannels];
	94	Int_t scDet[kNScChannels], scSec[kNScChannels];
	95	for(Int_t y=0; y<kNScChannels; y++){
	96	scMod[y]=scCh[y]=scSigCode[y]=scDet[y]=scSec[y]=0;
	97	}
82dffa48	98
	99	Int_t itdcCh=0;
	100	Int_t tdcMod[kNScChannels], tdcCh[kNScChannels], tdcSigCode[kNScChannels];
	101	Int_t tdcDet[kNScChannels], tdcSec[kNScChannels];
	102	for(Int_t y=0; y<kNScChannels; y++){
	103	tdcMod[y]=tdcCh[y]=tdcSigCode[y]=tdcDet[y]=tdcSec[y]=-1;
	104	}
2804fead	105
	106	/* log start of process */
	107	printf("ZDC EMD program started\n");
	108
	109	/* check that we got some arguments = list of files */
	110	if (argc<2) {
	111	printf("Wrong number of arguments\n");
	112	return -1;
	113	}
	114
	115	// --- Preparing histos for EM dissociation spectra
	116	//
3fb9b0f3	117	TH2F * hZDCvsZEM = new TH2F("hZDCvsZEM","EZDCTot vs. EZEM",100,0.,8.,100,0.,800.);
	118	TH2F * hZDCCvsZEM = new TH2F("hZDCCvsZEM","EZDCC vs. EZEM",100,0.,8.,100,0.,400.);
	119	TH2F * hZDCAvsZEM = new TH2F("hZDCAvsZEM","EZDCA vs. EZEM",100,0.,8.,100,0.,400.);
2804fead	120
	121	/* open result file */
	122	FILE *fp=NULL;
	123	fp=fopen("./result.txt","a");
	124	if (fp==NULL) {
	125	printf("Failed to open file\n");
	126	return -1;
	127	}
	128
	129	FILE *mapFile4Shuttle;
	130
	131	// *** To analyze CALIBRATION_MB events a pedestal data file is needed!!!
	132	// *** -> check if a pedestal run has been analyzed
	133	int read = 0;
	134	read = daqDA_DB_getFile(PEDDATA_FILE,PEDDATA_FILE);
	135	if(read){
	136	printf("\t ERROR!!! ZDCPedestal.dat file NOT FOUND in DAQ db!!!\n");
	137	return -1;
	138	}
	139	else printf("\t ZDCPedestal.dat file retrieved from DAQ db\n");
	140
	141	FILE *filePed = fopen(PEDDATA_FILE,"r");
	142	if (filePed==NULL) {
	143	printf("\t ERROR!!! Can't open ZDCPedestal.dat file!!!\n");
	144	return -1;
	145	}
	146
	147	// 144 = 48 in-time + 48 out-of-time + 48 correlations
	148	Float_t readValues[2][6*kNChannels];
	149	Float_t MeanPedhg[kNChannels], MeanPedlg[kNChannels];
	150	Float_t CorrCoeff0[2kNChannels], CorrCoeff1[2kNChannels];
	151	// ***************************************************
	152	// Unless we have a narrow correlation to fit we
	153	// don't fit and store in-time vs. out-of-time
	154	// histograms -> mean pedstal subtracted!!!!!!
	155	// ***************************************************
	156	//
	157	for(int jj=0; jj<6*kNChannels; jj++){
	158	for(int ii=0; ii<2; ii++){
	159	fscanf(filePed,"%f",&readValues[ii][jj]);
	160	}
	161	if(jj<kNChannels){
	162	MeanPedhg[jj] = readValues[0][jj];
	163	//printf("\t MeanPedhg[%d] = %1.1f\n",jj, MeanPedhg[jj]);
	164	}
	165	else if(jj>=kNChannels && jj<2*kNChannels){
	166	MeanPedlg[jj-kNChannels] = readValues[0][jj];
	167	//printf("\t MeanPedlg[%d] = %1.1f\n",jj-kNChannels, MeanPedlg[jj-kNChannels]);
	168	}
	169	else if(jj>4*kNChannels){
	170	CorrCoeff0[jj-4*kNChannels] = readValues[0][jj];
	171	CorrCoeff1[jj-4*kNChannels] = readValues[1][jj];;
	172	}
	173	}
	174
	175	/* report progress */
	176	daqDA_progressReport(10);
3fb9b0f3	177
	178	FILE *fileEnCal = fopen(ENCALIBDATA_FILE,"r");
	179	if(fileEnCal==NULL) {
	180	printf("\t ERROR!!! Can't open ZDCEnergyCalib.dat file!!!\n");
	181	return -1;
	182	}
	183
	184	Float_t calibCoeff[6];
	185	for(Int_t irow=0; irow<6; irow++){
	186	fscanf(fileEnCal,"%f",&calibCoeff[irow]);
	187	}
2804fead	188
	189	/* init some counters */
	190	int nevents_physics=0;
	191	int nevents_total=0;
	192
	193	struct eventHeaderStruct *event;
	194	eventTypeType eventT;
	195
	196	/* read the data files */
	197	int n;
	198	for(n=1;n<argc;n++){
	199
	200	status=monitorSetDataSource( argv[n] );
	201	if (status!=0) {
	202	printf("monitorSetDataSource() failed : %s\n",monitorDecodeError(status));
	203	return -1;
	204	}
	205
	206	/* report progress */
	207	/* in this example, indexed on the number of files */
	208	daqDA_progressReport(10+80*n/argc);
	209
	210	/* read the file */
	211	for(;;){
	212
	213	/* get next event */
	214	status=monitorGetEventDynamic((void **)&event);
	215	if(status==MON_ERR_EOF) break; /* end of monitoring file has been reached */
	216	if(status!=0) {
	217	printf("monitorGetEventDynamic() failed : %s\n",monitorDecodeError(status));
	218	return -1;
	219	}
	220
	221	/* retry if got no event */
	222	if(event==NULL) {
	223	break;
	224	}
	225
	226	// Initalize raw-data reading and decoding
	227	AliRawReader reader = new AliRawReaderDate((void)event);
	228	reader->Select("ZDC");
	229	// --- Reading event header
	230	//UInt_t evtype = reader->GetType();
	231	//printf("\n\t ZDCEMDda -> ev. type %d\n",evtype);
	232	//printf("\t ZDCEMDda -> run # %d\n",reader->GetRunNumber());
	233	//
	234	AliZDCRawStream *rawStreamZDC = new AliZDCRawStream(reader);
	235
	236
	237	/* use event - here, just write event id to result file */
	238	eventT=event->eventType;
	239
2804fead	240	if(eventT==START_OF_DATA){
198f612a	241
2804fead	242	rawStreamZDC->SetSODReading(kTRUE);
	243
	244	// --------------------------------------------------------
	245	// --- Writing ascii data file for the Shuttle preprocessor
	246	mapFile4Shuttle = fopen(MAPDATA_FILE,"w");
	247	if(!rawStreamZDC->Next()) printf(" \t No raw data found!! \n");
	248	else{
	249	while((rawStreamZDC->Next())){
	250	if(rawStreamZDC->IsHeaderMapping()){ // mapping header
198f612a	251	iMod++;
	252	modGeo[iMod] = rawStreamZDC->GetADCModule();
	253	modType[iMod] = rawStreamZDC->GetModType();
	254	modNCh[iMod] = rawStreamZDC->GetADCNChannels();
2804fead	255	}
2804fead	256	if(rawStreamZDC->IsChMapping()){
198f612a	257	if(modType[iMod]==1){ // ADC mapping ----------------------
2804fead	258	adcMod[ich] = rawStreamZDC->GetADCModFromMap(ich);
	259	adcCh[ich] = rawStreamZDC->GetADCChFromMap(ich);
	260	sigCode[ich] = rawStreamZDC->GetADCSignFromMap(ich);
	261	det[ich] = rawStreamZDC->GetDetectorFromMap(ich);
	262	sec[ich] = rawStreamZDC->GetTowerFromMap(ich);
2804fead	263	ich++;
2804fead	264	}
198f612a	265	else if(modType[iMod]==2){ //VME scaler mapping --------------------
2804fead	266	scMod[iScCh] = rawStreamZDC->GetScalerModFromMap(iScCh);
	267	scCh[iScCh] = rawStreamZDC->GetScalerChFromMap(iScCh);
	268	scSigCode[iScCh] = rawStreamZDC->GetScalerSignFromMap(iScCh);
	269	scDet[iScCh] = rawStreamZDC->GetScDetectorFromMap(iScCh);
198f612a	270	scSec[iScCh] = rawStreamZDC->GetScTowerFromMap(iScCh);
2804fead	271	iScCh++;
2804fead	272	}
82dffa48	273	else if(modType[iMod]==6 && modGeo[iMod]==4){ // ZDC TDC mapping --------------------
	274	tdcMod[itdcCh] = rawStreamZDC->GetTDCModFromMap(itdcCh);
	275	tdcCh[itdcCh] = rawStreamZDC->GetTDCChFromMap(itdcCh);
	276	tdcSigCode[itdcCh] = rawStreamZDC->GetTDCSignFromMap(itdcCh);
	277	itdcCh++;
	278	}
2804fead	279	}
198f612a	280	}
198f612a	281	// Writing data on output FXS file
198f612a	282	for(Int_t is=0; is<2*kNChannels; is++){
	283	fprintf(mapFile4Shuttle,"\t%d\t%d\t%d\t%d\t%d\t%d\n",
	284	is,adcMod[is],adcCh[is],sigCode[is],det[is],sec[is]);
	285	//printf(" CalibMB DA -> %d ADC: mod %d ch %d, code %d det %d, sec %d\n",
	286	// is,adcMod[is],adcCh[is],sigCode[is],det[is],sec[is]);
	287	}
	288	for(Int_t is=0; is<kNScChannels; is++){
	289	fprintf(mapFile4Shuttle,"\t%d\t%d\t%d\t%d\t%d\t%d\n",
	290	is,scMod[is],scCh[is],scSigCode[is],scDet[is],scSec[is]);
	291	//printf(" CalibMB DA -> %d Scaler: mod %d ch %d, code %d det %d, sec %d\n",
	292	// is,scMod[is],scCh[is],scSigCode[is],scDet[is],scSec[is]);
2804fead	293	}
82dffa48	294	for(Int_t is=0; is<kNScChannels; is++){
	295	fprintf(mapFile4Shuttle,"\t%d\t%d\t%d\t%d\n",
	296	is,tdcMod[is],tdcCh[is],tdcSigCode[is]);
	297	//if(tdcMod[is]!=-1) printf(" Mapping DA -> %d TDC: mod %d ch %d, code %d\n",
	298	// is,tdcMod[is],tdcCh[is],tdcSigCode[is]);
	299	}
608444fb	300	for(Int_t is=0; is<kNModules; is++){
	301	fprintf(mapFile4Shuttle,"\t%d\t%d\t%d\n",
	302	modGeo[is],modType[is],modNCh[is]);
	303	//printf(" CalibMB DA -> Module mapping: geo %d type %d #ch %d\n",
	304	// modGeo[is],modType[is],modNCh[is]);
	305	}
198f612a	306
2804fead	307	}
	308	fclose(mapFile4Shuttle);
	309	}// SOD event
	310
	311	if(eventT==PHYSICS_EVENT){
	312	// --- Reading data header
	313	reader->ReadHeader();
	314	const AliRawDataHeader* header = reader->GetDataHeader();
	315	if(header){
	316	UChar_t message = header->GetAttributes();
	317	if((message & 0xf0) == 0x60){ // DEDICATED CALIBRATION MB RUN
3fb9b0f3	318	//printf("\t CALIBRATION_MB_RUN raw data found\n");
2804fead	319	continue;
	320	}
	321	else{
3fb9b0f3	322	//printf("\t NO CALIBRAION_MB_RUN raw data found\n");
3fb9b0f3	323	//return -1;
2804fead	324	}
	325	}
	326	else{
	327	printf("\t ATTENTION! No Raw Data Header found!!!\n");
	328	return -1;
	329	}
	330
	331	rawStreamZDC->SetSODReading(kTRUE);
	332
	333	if (!rawStreamZDC->Next()) printf(" \t No raw data found!! ");
	334	//
	335	// ----- Setting ch. mapping -----
	336	for(Int_t jk=0; jk<2*kNChannels; jk++){
	337	rawStreamZDC->SetMapADCMod(jk, adcMod[jk]);
	338	rawStreamZDC->SetMapADCCh(jk, adcCh[jk]);
	339	rawStreamZDC->SetMapADCSig(jk, sigCode[jk]);
	340	rawStreamZDC->SetMapDet(jk, det[jk]);
	341	rawStreamZDC->SetMapTow(jk, sec[jk]);
	342	}
	343	//
3fb9b0f3	344	Float_t rawZNC=0., rawZPC=0., rawZNA=0., rawZPA=0., rawZEM1=0., rawZEM2=0.;
	345	Float_t corrZNC=0., corrZPC=0., corrZNA=0., corrZPA=0., corrZEM1=0.,corrZEM2=0.;
	346	Float_t calZNC=0., calZPC=0., calZNA=0., calZPA=0., calZEM1=0., calZEM2=0.;
	347	Float_t calZDCTot=0., calZDCC=0., calZDCA=0., calZEM=0.;
2804fead	348	//
	349	while(rawStreamZDC->Next()){
	350	Int_t detector = rawStreamZDC->GetSector(0);
	351	Int_t quad = rawStreamZDC->GetSector(1);
	352	Int_t index=-1;
	353
	354	if( (rawStreamZDC->IsADCDataWord()) && !(rawStreamZDC->IsUnderflow())
	355	&& !(rawStreamZDC->IsOverflow()) && (detector!=-1)
	356	&& ((rawStreamZDC->GetADCGain()) == 0) && // Selecting HIGH RES ch.s
	357	(rawStreamZDC->GetADCModule()>=kFirstADCGeo) && (rawStreamZDC->GetADCModule()<=kLastADCGeo)){
	358
	359	//printf(" IsADCWord %d, IsUnderflow %d, IsOverflow %d\n",
	360	// rawStreamZDC->IsADCDataWord(),rawStreamZDC->IsUnderflow(),rawStreamZDC->IsOverflow());
	361
	362	if(quad!=5){ // Physics signals
	363	if(detector==1) index = quad; // *** ZNC
	364	else if(detector==2) index = quad+5; // *** ZPC
	365	else if(detector==3) index = quad+9; // *** ZEM
	366	else if(detector==4) index = quad+12;// *** ZNA
	367	else if(detector==5) index = quad+17;// *** ZPA
	368	}
	369	else continue;
	370	//
	371	if(index==-1) printf("ERROR in ZDCCALIBMBda.cxx -> det %d quad %d index %d ADC %d\n",
	372	detector, quad, index, rawStreamZDC->GetADCValue());
	373
	374	// Mean pedestal subtraction
	375	Float_t Pedestal = MeanPedhg[index];
	376	// Pedestal subtraction from correlation with out-of-time signals
	377	//Float_t Pedestal = CorrCoeff0[index]+CorrCoeff1[index]*MeanPedOOT[index];
	378	//
	379	if(index!=-1 && quad!=5){
	380	//
3fb9b0f3	381	if(detector==1){
	382	rawZNC = (Float_t) rawStreamZDC->GetADCValue();
	383	corrZNC = rawZNC - Pedestal;
	384	}
	385	else if(detector==2){
	386	rawZPC = (Float_t) rawStreamZDC->GetADCValue();
	387	corrZPC = rawZPC - Pedestal;
	388	}
	389	else if(detector==3){
	390	if(quad==1){
	391	rawZEM1 = (Float_t) rawStreamZDC->GetADCValue();
	392	corrZEM1 = (rawStreamZDC->GetADCValue()) - Pedestal;
	393	}
	394	else{
	395	rawZEM2 = (Float_t) rawStreamZDC->GetADCValue();
	396	corrZEM2 = (rawStreamZDC->GetADCValue()) - Pedestal;
	397	}
2804fead	398	}
3fb9b0f3	399	else if(detector==4){
	400	rawZNA = (Float_t) rawStreamZDC->GetADCValue();
	401	corrZNA = rawZNA - Pedestal;
	402	}
	403	else if(detector==5){
	404	rawZPA = (Float_t) rawStreamZDC->GetADCValue();
	405	corrZPA = rawZPA - Pedestal;
2804fead	406	}
	407	}
	408	}//IsADCDataWord()
	409
	410	} // Next()
3fb9b0f3	411
	412	calZNC = calibCoeff[0]*corrZNC;
	413	calZPC = calibCoeff[1]*corrZPC;
	414	calZNA = calibCoeff[2]*corrZNA;
	415	calZPA = calibCoeff[3]*corrZPA;
	416	calZEM1 = calibCoeff[4]*corrZEM1;
	417	calZEM2 = calibCoeff[4]*corrZEM2;
	418	calZDCTot = calZNC+calZPC+calZPA+calZNA;
	419	calZDCC = calZNC+calZPC;
	420	calZDCA = calZNA+calZPA;
	421	calZEM = calZEM1+calZEM2;
	422	//
	423	hZDCvsZEM ->Fill(calZDCTot/1000, calZEM/1000);
	424	hZDCCvsZEM->Fill(calZDCC/1000, calZEM/1000);
	425	hZDCAvsZEM->Fill(calZDCA/1000, calZEM/1000);
2804fead	426
	427	nevents_physics++;
	428	}//(if PHYSICS_EVENT)
	429
	430	nevents_total++;
	431
	432	}
	433
	434	/* free resources */
	435	free(event);
	436	}
	437
	438	//
	439	TFile *histofile = new TFile(MBCALIBDATA_FILE,"RECREATE");
	440	histofile->cd();
	441	hZDCvsZEM ->Write();
	442	hZDCCvsZEM->Write();
	443	hZDCAvsZEM->Write();
	444	histofile->Close();
	445
	446	if(hZDCvsZEM) delete hZDCvsZEM ;
	447	if(hZDCCvsZEM) delete hZDCCvsZEM;
	448	if(hZDCAvsZEM) delete hZDCAvsZEM;
	449
	450	/* write report */
	451	fprintf(fp,"Run #%s, received %d physics events out of %d\n",getenv("DATE_RUN_NUMBER"),nevents_physics,nevents_total);
	452
	453	/* close result file */
	454	fclose(fp);
	455
	456	/* report progress */
	457	daqDA_progressReport(90);
	458
	459	/* store the result file on FES */
	460	status = daqDA_FES_storeFile(MAPDATA_FILE, "MAPPING");
	461	if(status){
	462	printf("Failed to export file : %d\n",status);
	463	return -1;
	464	}
	465	//
	466	status = daqDA_FES_storeFile(MBCALIBDATA_FILE, "MBCALIB");
	467	if(status){
	468	printf("Failed to export file : %d\n",status);
	469	return -1;
	470	}
	471
	472	/* report progress */
	473	daqDA_progressReport(100);
	474
	475	return status;
	476	}