---

EEBeamCaloTask.cc

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/*
 * \file EEBeamCaloTask.cc
 *
 * $Date: 2008/12/03 15:03:17 $
 * $Revision: 1.36 $
 * \author A. Ghezzi
 *
 */

#include <iostream>
#include <fstream>
#include <vector>

#include "FWCore/ServiceRegistry/interface/Service.h"
#include "FWCore/MessageLogger/interface/MessageLogger.h"

#include "DQMServices/Core/interface/MonitorElement.h"

#include "DQMServices/Core/interface/DQMStore.h"

#include "DataFormats/EcalRawData/interface/EcalRawDataCollections.h"
#include "DataFormats/EcalDetId/interface/EBDetId.h"
#include "DataFormats/EcalDigi/interface/EBDataFrame.h"
#include "DataFormats/EcalDigi/interface/EcalDigiCollections.h"
#include "DataFormats/EcalRecHit/interface/EcalUncalibratedRecHit.h"
#include "DataFormats/EcalRecHit/interface/EcalRecHitCollections.h"

#include "TBDataFormats/EcalTBObjects/interface/EcalTBCollections.h"

#include <DQM/EcalCommon/interface/Numbers.h>

#include <DQM/EcalEndcapMonitorTasks/interface/EEBeamCaloTask.h>

using namespace cms;
using namespace edm;
using namespace std;

EEBeamCaloTask::EEBeamCaloTask(const ParameterSet& ps){

  init_ = false;

  dqmStore_ = Service<DQMStore>().operator->();

  prefixME_ = ps.getUntrackedParameter<string>("prefixME", "");

  enableCleanup_ = ps.getUntrackedParameter<bool>("enableCleanup", false);

  mergeRuns_ = ps.getUntrackedParameter<bool>("mergeRuns", false);

  EcalTBEventHeader_ = ps.getParameter<edm::InputTag>("EcalTBEventHeader");
  EcalRawDataCollection_ = ps.getParameter<edm::InputTag>("EcalRawDataCollection");
  EBDigiCollection_ = ps.getParameter<edm::InputTag>("EBDigiCollection");
  EcalUncalibratedRecHitCollection_ = ps.getParameter<edm::InputTag>("EcalUncalibratedRecHitCollection");

  for (int i = 0; i < cryInArray_ ; i++) {
    meBBCaloPulseProf_[i]=0;
    meBBCaloPulseProfG12_[i]=0;
    meBBCaloGains_[i]=0;
    meBBCaloEne_[i]=0;

    //meBBCaloPulseProfMoving_[i]=0;
    //meBBCaloPulseProfG12Moving_[i]=0;
    //meBBCaloGainsMoving_[i]=0;
    //meBBCaloEneMoving_[i]=0;
  }

  meBBCaloCryRead_ = 0;
  //meBBCaloCryReadMoving_ = 0;

  meBBNumCaloCryRead_ = 0;
  meBBCaloAllNeededCry_ = 0;

  meBBCaloE3x3_ = 0;
  meBBCaloE3x3Moving_ = 0;

  meBBCaloCryOnBeam_ = 0;
  meBBCaloMaxEneCry_ = 0;
  TableMoving_ = 0;

  CrystalsDone_ = 0;
  CrystalInBeam_vs_Event_ = 0;
  meEEBCaloReadCryErrors_ = 0;
  meEEBCaloE1vsCry_ = 0;
  meEEBCaloE3x3vsCry_ = 0;
  meEEBCaloEntriesVsCry_ = 0;
  meEEBCaloBeamCentered_ = 0;

  meEEBCaloE1MaxCry_ = 0;
//   for(int u=0;u<851;u++){
//     meBBCaloE3x3Cry_[u]=0;
//     meBBCaloE1Cry_[u]=0;
//   }

  meEEBCaloDesync_ = 0;

}

EEBeamCaloTask::~EEBeamCaloTask(){

}

void EEBeamCaloTask::beginJob(const EventSetup& c){

  ievt_ = 0;

  profileArranged_ = false;

  if ( dqmStore_ ) {
    dqmStore_->setCurrentFolder(prefixME_ + "/EEBeamCaloTask");
    dqmStore_->rmdir(prefixME_ + "/EEBeamCaloTask");
  }

  Numbers::initGeometry(c, false);

}

void EEBeamCaloTask::beginRun(const Run& r, const EventSetup& c) {

  if ( ! mergeRuns_ ) this->reset();

}

void EEBeamCaloTask::endRun(const Run& r, const EventSetup& c) {

}

void EEBeamCaloTask::reset(void) {

    for (int i = 0; i < cryInArray_ ; i++) {
      if ( meBBCaloPulseProf_[i] ) meBBCaloPulseProf_[i]->Reset();
      if ( meBBCaloPulseProfG12_[i] ) meBBCaloPulseProfG12_[i]->Reset();
      if ( meBBCaloGains_[i] ) meBBCaloGains_[i]->Reset();
      if ( meBBCaloEne_[i] ) meBBCaloEne_[i]->Reset();

//       if ( meBBCaloPulseProfMoving_[i] ) meBBCaloPulseProfMoving_[i]->Reset();
//       if ( meBBCaloPulseProfG12Moving_[i] ) meBBCaloPulseProfG12Moving_[i]->Reset();
//       if ( meBBCaloGainsMoving_[i] ) meBBCaloGainsMoving_[i]->Reset();
//       if ( meBBCaloEneMoving_[i] ) meBBCaloEneMoving_[i]->Reset();
    }

//     for(int u=0; u< 1701;u++){
//       if ( meBBCaloE3x3Cry_[u] ) meBBCaloE3x3Cry_[u]->Reset();
//       if ( meBBCaloE1Cry_[u] ) meBBCaloE1Cry_[u]->Reset();
//     }

    if ( meBBCaloCryRead_ ) meBBCaloCryRead_->Reset();
//    if ( meBBCaloCryReadMoving_ ) meBBCaloCryReadMoving_->Reset();
    if ( meBBCaloAllNeededCry_ ) meBBCaloAllNeededCry_->Reset();
    if ( meBBNumCaloCryRead_ ) meBBNumCaloCryRead_->Reset();
    if ( meBBCaloE3x3_ ) meBBCaloE3x3_->Reset();
    if ( meBBCaloE3x3Moving_ ) meBBCaloE3x3Moving_->Reset();
    if ( meBBCaloCryOnBeam_ ) meBBCaloCryOnBeam_->Reset();
    if ( meBBCaloMaxEneCry_ ) meBBCaloMaxEneCry_->Reset();
    if ( TableMoving_ ) TableMoving_->Reset();
    if ( CrystalsDone_ ) CrystalsDone_->Reset();
    if ( CrystalInBeam_vs_Event_ ) CrystalInBeam_vs_Event_->Reset();
    if( meEEBCaloReadCryErrors_ ) meEEBCaloReadCryErrors_->Reset();
    if( meEEBCaloE1vsCry_ ) meEEBCaloE1vsCry_->Reset();
    if( meEEBCaloE3x3vsCry_ ) meEEBCaloE3x3vsCry_->Reset();
    if( meEEBCaloEntriesVsCry_ )  meEEBCaloEntriesVsCry_->Reset();
    if( meEEBCaloBeamCentered_ ) meEEBCaloBeamCentered_->Reset();
    if( meEEBCaloE1MaxCry_ ) meEEBCaloE1MaxCry_->Reset();
    if( meEEBCaloDesync_ ) meEEBCaloDesync_->Reset();

}

void EEBeamCaloTask::setup(void){

  init_ = true;
  profileArranged_= false;
  char histo[200];

  PreviousTableStatus_[0]=0;//let's start with stable...
  PreviousTableStatus_[1]=0;//let's start with stable...

  PreviousCrystalinBeam_[0] = 0;
  PreviousCrystalinBeam_[1] = 0;
  PreviousCrystalinBeam_[2] = -1;
  // PreviousCrystalinBeam_[2] = -1 is needed to have a correct step vs cry matching
  lastStableStatus_=0;
  for(int u=0;u<10;u++){cib_[u]=0;}
  changed_tb_status_= false;
  changed_cry_in_beam_ = false;
  evt_after_change_ =0;
  wasFakeChange_= false;
  table_step_=1;
  crystal_step_=1;
  event_last_reset_ = 0;
  last_cry_in_beam_ = 0;
  previous_cry_in_beam_ = 1;

  if ( dqmStore_ ) {
    dqmStore_->setCurrentFolder(prefixME_ + "/EEBeamCaloTask");

    for (int i = 0; i < cryInArray_ ; i++) {
      sprintf(histo, "EEBCT pulse profile cry %01d", i+1);
      //considering the gain the range is 4096*12 ~ 50000
      meBBCaloPulseProf_[i] = dqmStore_->bookProfile(histo, histo, 10,0.,10.,50000,0.,50000.,"s");

      sprintf(histo, "EEBCT pulse profile in G12 cry %01d", i+1);
      meBBCaloPulseProfG12_[i] = dqmStore_->bookProfile(histo, histo, 10,0.,10.,4096,0.,4096.,"s");
      meBBCaloPulseProfG12_[i]->setAxisTitle("#sample", 1);
      meBBCaloPulseProfG12_[i]->setAxisTitle("ADC", 2);

      sprintf(histo, "EEBCT found gains cry %01d", i+1);
      meBBCaloGains_[i] =  dqmStore_->book1D(histo,histo,14,0.,14.);
      meBBCaloGains_[i]->setAxisTitle("gain", 1);
      // g1-> bin 2, g6-> bin 7, g12-> bin 13

      sprintf(histo, "EEBCT rec energy cry %01d", i+1);
      meBBCaloEne_[i] =  dqmStore_->book1D(histo,histo,500,0.,9000.);
      meBBCaloEne_[i]->setAxisTitle("rec ene (ADC)", 1);
      //9000 ADC in G12 equivalent is about 330 GeV


//       sprintf(histo, "EEBCT pulse profile moving table cry %01d", i+1);
//       //considering the gain the range is 4096*12 ~ 50000
//       meBBCaloPulseProfMoving_[i] = dqmStore_->bookProfile(histo, histo, 10,0.,10.,50000,0.,50000.,"s");

//       sprintf(histo, "EEBCT pulse profile in G12 moving table cry %01d", i+1);
//       meBBCaloPulseProfG12Moving_[i] = dqmStore_->bookProfile(histo, histo, 10,0.,10.,4096,0.,4096.,"s");

//       sprintf(histo, "EEBCT found gains moving table cry %01d", i+1);
//       meBBCaloGainsMoving_[i] =  dqmStore_->book1D(histo,histo,14,0.,14.);
//       // g1-> bin 2, g6-> bin 7, g12-> bin 13

//       sprintf(histo, "EEBCT rec energy moving table cry %01d", i+1);
//       meBBCaloEneMoving_[i] =  dqmStore_->book1D(histo,histo,2000,0.,9000.);
//       //9000 ADC in G12 equivalent is about 330 GeV

    }

//     dqmStore_->setCurrentFolder(prefixME_ + "/EEBeamCaloTask/EnergyHistos");
//     for(int u=0; u< 851;u++){
//       sprintf(histo, "EEBCT rec Ene sum 3x3 cry: %04d",u);
//       meBBCaloE3x3Cry_[u] = dqmStore_->book1D(histo,histo,1000,0.,4500.);

//       sprintf(histo, "EEBCT rec Energy1 cry: %04d",u);
//       meBBCaloE1Cry_[u] = dqmStore_->book1D(histo,histo,1000,0.,4500.);
//     }

//     dqmStore_->setCurrentFolder(prefixME_ + "/EEBeamCaloTask");
    sprintf(histo, "EEBCT readout crystals");
    meBBCaloCryRead_ =  dqmStore_->book2D(histo,histo,9,-4.,5.,9,-4.,5.);
    //matrix of readout crystal around cry in beam

    //sprintf(histo, "EEBCT readout crystals table moving");
    //meBBCaloCryReadMoving_ =  dqmStore_->book2D(histo,histo,9,-4.,5.,9,-4.,5.);
    //matrix of readout crystal around cry in beam

    sprintf(histo, "EEBCT all needed crystals readout");
    meBBCaloAllNeededCry_ = dqmStore_->book1D(histo,histo,3,-1.,2.);
    // not all needed cry are readout-> bin 1, all needed cry are readout-> bin 3

    sprintf(histo, "EEBCT readout crystals number");
    meBBNumCaloCryRead_ = dqmStore_->book1D(histo,histo,851,0.,851.);
    meBBNumCaloCryRead_->setAxisTitle("number of read crystals", 1);

    sprintf(histo, "EEBCT rec Ene sum 3x3");
    meBBCaloE3x3_ = dqmStore_->book1D(histo,histo,500,0.,9000.);
    meBBCaloE3x3_->setAxisTitle("rec ene (ADC)", 1);
    //9000 ADC in G12 equivalent is about 330 GeV

    sprintf(histo, "EEBCT rec Ene sum 3x3 table moving");
    meBBCaloE3x3Moving_ = dqmStore_->book1D(histo,histo,500,0.,9000.);
    //9000 ADC in G12 equivalent is about 330 GeV

    sprintf(histo, "EEBCT crystal on beam");
    meBBCaloCryOnBeam_ = dqmStore_->book2D(histo, histo, 85, 0., 85., 20, 0., 20.);

    sprintf(histo, "EEBCT crystal with maximum rec energy");
    meBBCaloMaxEneCry_ = dqmStore_->book2D(histo, histo, 85, 0., 85., 20, 0., 20.);

    sprintf(histo, "EEBCT table is moving");
    TableMoving_ = dqmStore_->book1D(histo,histo,2,0.,1.1);
    TableMoving_->setAxisTitle("table status (0=stable, 1=moving)", 1);
    //table is moving-> bin 2, table is not moving-> bin 1

    sprintf(histo, "EEBCT crystals done");
    CrystalsDone_ = dqmStore_->book1D(histo,histo,850,1.,851.);
    CrystalsDone_->setAxisTitle("crystal", 1);
    CrystalsDone_->setAxisTitle("step in the scan", 2);
    //for a crystal done the corresponing bin is filled with the step in the
    //autoscan pertainig to the given crystales

    sprintf(histo, "EEBCT crystal in beam vs event");
    CrystalInBeam_vs_Event_ = dqmStore_->bookProfile(histo, histo, 20000,0.,400000.,1802,-101.,851.,"s");
    CrystalInBeam_vs_Event_->setAxisTitle("event", 1);
    CrystalInBeam_vs_Event_->setAxisTitle("crystal in beam", 2);
    // 1 bin each 20 events
    // when table is moving for just one events fill with -100


    sprintf(histo, "EEBCT readout crystals errors");
    meEEBCaloReadCryErrors_ = dqmStore_->book1D(histo, histo, 425,1.,86.);
    meEEBCaloReadCryErrors_->setAxisTitle("step in the scan", 1);

    sprintf(histo, "EEBCT average rec energy in the single crystal");
    //meEEBCaloE1vsCry_ = dqmStore_->book1D(histo, histo, 85,1.,86.);
    meEEBCaloE1vsCry_ = dqmStore_->bookProfile(histo, histo, 850,1.,851.,500,0.,9000.,"s");
    meEEBCaloE1vsCry_->setAxisTitle("crystal", 1);
    meEEBCaloE1vsCry_->setAxisTitle("rec energy (ADC)", 2);

    sprintf(histo, "EEBCT average rec energy in the 3x3 array");
    //meEEBCaloE3x3vsCry_= dqmStore_->book1D(histo, histo,85,1.,86.);
    meEEBCaloE3x3vsCry_ = dqmStore_->bookProfile(histo, histo, 850,1.,851.,500,0.,9000.,"s");
    meEEBCaloE3x3vsCry_->setAxisTitle("crystal", 1);
    meEEBCaloE3x3vsCry_->setAxisTitle("rec energy (ADC)", 2);

    sprintf(histo, "EEBCT number of entries");
    meEEBCaloEntriesVsCry_ = dqmStore_->book1D(histo, histo,850,1.,851.);
    meEEBCaloEntriesVsCry_->setAxisTitle("crystal", 1);
    meEEBCaloEntriesVsCry_->setAxisTitle("number of events (prescaled)", 2);

    sprintf(histo, "EEBCT energy deposition in the 3x3");
    meEEBCaloBeamCentered_ = dqmStore_->book2D(histo, histo,3,-1.5,1.5,3,-1.5,1.5);
    meEEBCaloBeamCentered_->setAxisTitle("\\Delta \\eta", 1);
    meEEBCaloBeamCentered_->setAxisTitle("\\Delta \\phi", 2);

    sprintf(histo, "EEBCT E1 in the max cry");
    meEEBCaloE1MaxCry_= dqmStore_->book1D(histo,histo,500,0.,9000.);
    meEEBCaloE1MaxCry_->setAxisTitle("rec Ene (ADC)", 1);

    sprintf(histo, "EEBCT Desynchronization vs step");
    meEEBCaloDesync_= dqmStore_->book1D(histo, histo, 85 ,1.,86.);
    meEEBCaloDesync_->setAxisTitle("step", 1);
    meEEBCaloDesync_->setAxisTitle("Desynchronized events", 2);

  }

}

void EEBeamCaloTask::cleanup(void){

  if ( ! init_ ) return;

  if ( dqmStore_ ) {
    dqmStore_->setCurrentFolder(prefixME_ + "/EEBeamCaloTask");
    for (int i = 0; i < cryInArray_ ; i++) {
      if ( meBBCaloPulseProf_[i] ) dqmStore_->removeElement( meBBCaloPulseProf_[i]->getName() );
      meBBCaloPulseProf_[i] = 0;
      if ( meBBCaloPulseProfG12_[i] ) dqmStore_->removeElement( meBBCaloPulseProfG12_[i]->getName() );
      meBBCaloPulseProfG12_[i] = 0;
      if ( meBBCaloGains_[i] ) dqmStore_->removeElement( meBBCaloGains_[i]->getName() );
      meBBCaloGains_[i] = 0;
      if ( meBBCaloEne_[i] ) dqmStore_->removeElement( meBBCaloEne_[i]->getName() );
      meBBCaloEne_[i] = 0;

//       if ( meBBCaloPulseProfMoving_[i] ) dqmStore_->removeElement( meBBCaloPulseProfMoving_[i]->getName() );
//       meBBCaloPulseProfMoving_[i] = 0;
//       if ( meBBCaloPulseProfG12Moving_[i] ) dqmStore_->removeElement( meBBCaloPulseProfG12Moving_[i]->getName() );
//       meBBCaloPulseProfG12Moving_[i] = 0;
//       if ( meBBCaloGainsMoving_[i] ) dqmStore_->removeElement( meBBCaloGainsMoving_[i]->getName() );
//       meBBCaloGainsMoving_[i] = 0;
//       if ( meBBCaloEneMoving_[i] ) dqmStore_->removeElement( meBBCaloEneMoving_[i]->getName() );
//       meBBCaloEneMoving_[i] = 0;
    }

//     dqmStore_->setCurrentFolder(prefixME_ + "/EEBeamCaloTask/EnergyHistos");
//     for(int u=0; u< 851;u++){
//       if ( meBBCaloE3x3Cry_[u] ) dqmStore_->removeElement( meBBCaloE3x3Cry_[u]->getName() );
//       meBBCaloE3x3Cry_[u] = 0;
//       if ( meBBCaloE1Cry_[u] ) dqmStore_->removeElement( meBBCaloE1Cry_[u]->getName() );
//       meBBCaloE1Cry_[u] = 0;
//     }

//     dqmStore_->setCurrentFolder(prefixME_ + "/EEBeamCaloTask");
    if ( meBBCaloCryRead_ ) dqmStore_->removeElement( meBBCaloCryRead_->getName() );
    meBBCaloCryRead_ = 0;
//    if ( meBBCaloCryReadMoving_ ) dqmStore_->removeElement( meBBCaloCryReadMoving_->getName() );
//    meBBCaloCryReadMoving_ = 0;
    if ( meBBCaloAllNeededCry_ ) dqmStore_->removeElement( meBBCaloAllNeededCry_->getName() );
    meBBCaloAllNeededCry_ = 0;
    if ( meBBNumCaloCryRead_ ) dqmStore_->removeElement( meBBNumCaloCryRead_->getName() );
    meBBNumCaloCryRead_ = 0;
    if ( meBBCaloE3x3_ ) dqmStore_->removeElement( meBBCaloE3x3_->getName() );
    meBBCaloE3x3_ = 0;
    if ( meBBCaloE3x3Moving_ ) dqmStore_->removeElement( meBBCaloE3x3Moving_->getName() );
    meBBCaloE3x3Moving_ = 0;
    if ( meBBCaloCryOnBeam_ ) dqmStore_->removeElement( meBBCaloCryOnBeam_->getName() );
    meBBCaloCryOnBeam_ = 0;
    if ( meBBCaloMaxEneCry_ ) dqmStore_->removeElement( meBBCaloMaxEneCry_->getName() );
    meBBCaloMaxEneCry_ = 0;
    if ( TableMoving_ ) dqmStore_->removeElement( TableMoving_->getName() );
    TableMoving_ = 0;
    if ( CrystalsDone_ ) dqmStore_->removeElement( CrystalsDone_->getName() );
    CrystalsDone_ = 0;
    if ( CrystalInBeam_vs_Event_ ) dqmStore_->removeElement( CrystalInBeam_vs_Event_->getName() );
    CrystalInBeam_vs_Event_ = 0;
    if( meEEBCaloReadCryErrors_ ) dqmStore_->removeElement( meEEBCaloReadCryErrors_->getName() );
    meEEBCaloReadCryErrors_ = 0;
    if( meEEBCaloE1vsCry_ ) dqmStore_->removeElement( meEEBCaloE1vsCry_->getName() );
    meEEBCaloE1vsCry_ = 0;
    if( meEEBCaloE3x3vsCry_ ) dqmStore_->removeElement( meEEBCaloE3x3vsCry_->getName() );
    meEEBCaloE3x3vsCry_ = 0;
    if( meEEBCaloEntriesVsCry_ )  dqmStore_->removeElement( meEEBCaloEntriesVsCry_->getName() );
    meEEBCaloEntriesVsCry_ = 0;
    if( meEEBCaloBeamCentered_ ) dqmStore_->removeElement( meEEBCaloBeamCentered_->getName() );
    meEEBCaloBeamCentered_ = 0;
    if( meEEBCaloE1MaxCry_ ) dqmStore_->removeElement(meEEBCaloE1MaxCry_->getName() );
    meEEBCaloE1MaxCry_ = 0;
    if( meEEBCaloDesync_ ) dqmStore_->removeElement(meEEBCaloDesync_->getName() );
    meEEBCaloDesync_ = 0;
  }

  init_ = false;

}

void EEBeamCaloTask::endJob(void){

  LogInfo("EEBeamCaloTask") << "analyzed " << ievt_ << " events";

  if ( enableCleanup_ ) this->cleanup();

}

void EEBeamCaloTask::analyze(const Event& e, const EventSetup& c){

  bool enable = false;

  Handle<EcalRawDataCollection> dcchs;

  if ( e.getByLabel(EcalRawDataCollection_, dcchs) ) {

    for ( EcalRawDataCollection::const_iterator dcchItr = dcchs->begin(); dcchItr != dcchs->end(); ++dcchItr ) {

      if ( Numbers::subDet( *dcchItr ) != EcalEndcap ) continue;

      if ( dcchItr->getRunType() == EcalDCCHeaderBlock::BEAMH4 ||
           dcchItr->getRunType() == EcalDCCHeaderBlock::BEAMH2 ) enable = true;
    }

  } else {
    LogWarning("EEBeamCaloTask") << EcalRawDataCollection_ << " not available";
  }

  if ( ! enable ) return;
  if ( ! init_ ) this->setup();
  ievt_++;

  Handle<EcalTBEventHeader> pEventHeader;
  const EcalTBEventHeader* evtHeader=0;

  if ( e.getByLabel(EcalTBEventHeader_, pEventHeader) ) {
    evtHeader = pEventHeader.product(); // get a ptr to the product
  } else {
    std::cerr << "Error! can't get the product for the event header" << std::endl;
  }

  //FIX ME, in the task we should use LV1 instead of ievt_ (prescaling)
  int cry_in_beam = 0;
  bool tb_moving = false;//just for test, to be filled with info from the event
  int event = 0;

  if(evtHeader){
    //cry_in_beam = evtHeader->nominalCrystalInBeam();
    cry_in_beam = evtHeader->crystalInBeam();
    tb_moving = evtHeader->tableIsMoving();
    event = evtHeader->eventNumber();
    if( evtHeader->syncError() ) {meEEBCaloDesync_->Fill(crystal_step_);}
  }
  else {
    cry_in_beam =   previous_cry_in_beam_;
    tb_moving = lastStableStatus_;
    event = previous_ev_num_ +10;
  }

  previous_cry_in_beam_ = cry_in_beam;
  previous_ev_num_ = event;

  //cry_in_beam = 702;//just for test, to be filled with info from the event

  bool reset_histos_stable = false;
  bool reset_histos_moving = false;

  bool skip_this_event = false;

//   if(ievt_ > 500){tb_moving=true; }
//   if(ievt_ > 1000){tb_moving=false; cry_in_beam = 703;}
//   if(ievt_ > 2000){tb_moving=true; }
//   if(ievt_ > 2500){tb_moving=false; cry_in_beam = 704;}
//   if(ievt_ == 3000){cry_in_beam = 702;}
//   if(ievt_ == 3001){cry_in_beam = 703;}
//   if(ievt_ > 3500){tb_moving=true; }

//   if(ievt_ > 3300){tb_moving=true; }
//   if(ievt_ > 6100){tb_moving=false; cry_in_beam = 705;}
//   if(ievt_ == 6201){tb_moving=true; }
//   if(ievt_ > 9000){tb_moving=true; }
//   if(ievt_ == 11021){tb_moving=false; }
//   if(ievt_ > 12100){tb_moving=false; cry_in_beam = 706;}
//   if(ievt_ > 15320){tb_moving=true; }
//   if(ievt_ > 15500){tb_moving=false; cry_in_beam = 707;}


 //  //if(ievt_ > 20){tb_moving=true; }
//   //  if(ievt_ == 23){tb_moving=true; }
//   if(ievt_ > 50){tb_moving=false; cry_in_beam = 705;}
//   //if(ievt_ > 90 ){tb_moving=true; }
//   if(ievt_ == 65){tb_moving=false; }
//   if(ievt_ > 110){tb_moving=false; cry_in_beam = 706;}
//   if(ievt_ == 116){cry_in_beam = 709;}
//   //if(ievt_ > 115){tb_moving=true; }
//   if(ievt_ > 150){tb_moving=false; cry_in_beam = 707;}

  //   #include <DQM/EcalEndcapMonitorTasks/interface/cry_in_beam_run_ecs73214.h>

  if(ievt_ < 3){last_cry_in_beam_ = cry_in_beam;}

  if(tb_moving){

    TableMoving_->Fill(1);
    if( PreviousTableStatus_[0] == 0 &&  PreviousTableStatus_[1] == 1 && lastStableStatus_ == 0){
      reset_histos_moving=true;
      wasFakeChange_ = false;
      // ! Warning! This works in the assumption that the crystal in beam stay the same
      // while the tb is moving and is set to the new one only when the table
      // reaches the new position
      lastStableStatus_ = 1;

    }
    else if( PreviousTableStatus_[1] == 0) {
      skip_this_event=true;
      changed_tb_status_ = true;
      wasFakeChange_ = true;
    }
    // just skip the first event when the table change status
    PreviousTableStatus_[0] = PreviousTableStatus_[1];
    PreviousTableStatus_[1] = 1;
  }//end of if(tb_moving)

  else {// table is not moving

    TableMoving_->Fill(0);
    if( PreviousTableStatus_[0] == 1 &&  PreviousTableStatus_[1] == 0 && lastStableStatus_ == 1){
      //reset_histos_stable = true;
      wasFakeChange_ = false;
      lastStableStatus_ = 0;
    }
    else if(PreviousTableStatus_[1] == 1) {
      skip_this_event=true;
      changed_tb_status_ = true;
      wasFakeChange_ = true;
    }
    // just skip the first event when the table change status
    PreviousTableStatus_[0]=PreviousTableStatus_[1];
    PreviousTableStatus_[1]=0;

    // check also whether cry in beam  has changed
    if(  PreviousCrystalinBeam_[0] == PreviousCrystalinBeam_[1]  &&   PreviousCrystalinBeam_[1] != PreviousCrystalinBeam_[2] && PreviousCrystalinBeam_[2] == cry_in_beam ){
      reset_histos_stable=true;
      wasFakeChange_ = false;
    }
    else if (PreviousCrystalinBeam_[2] != cry_in_beam){
      changed_cry_in_beam_ = true;
      skip_this_event=true;
      wasFakeChange_ = true;
    }
    // }

    PreviousCrystalinBeam_[0] = PreviousCrystalinBeam_[1];
    PreviousCrystalinBeam_[1] = PreviousCrystalinBeam_[2];
    PreviousCrystalinBeam_[2] =  cry_in_beam;
  }
  //if (! changed_tb_status_ && ! changed_cry_in_beam_ ){// standard data taking

    if( !tb_moving ) {CrystalInBeam_vs_Event_->Fill(event,float(cry_in_beam));}
    else{CrystalInBeam_vs_Event_->Fill(event,-100); }
    if ( !profileArranged_ ){
      float dd=0;
      int mbin =0;
      for( int bin=1; bin < 20001; bin++ ){
        float temp = CrystalInBeam_vs_Event_->getBinContent(bin);
        if(temp>0){ dd= temp+0.01; mbin=bin; break;}
      }
      if(mbin >0) { CrystalInBeam_vs_Event_->Fill(20*mbin-1,dd);}
      profileArranged_ = true;
    }

    // }
//   else{ // here there is either a step or a daq error
//     // keep 10 events in a buffer waiting to decide for the step or the error
//     if(tb_moving){cib_[evt_after_change_]=-100;}
//     else {cib_[evt_after_change_]=cry_in_beam;}

//     if(evt_after_change_ >= 9){
//       evt_after_change_ =0;
//       if(wasFakeChange_){// here is an error: put the 10 events in the profile
//      for(int u=0; u<10; u++){
//        CrystalInBeam_vs_Event_->Fill(ievt_-9+u , cib_[u]);
//      }
//       }
//       //for a real change just skip the first 10 events after change
//       changed_tb_status_=false;
//       changed_cry_in_beam_ = false;
//     }
//     else{evt_after_change_ ++;}
//   }

  if(reset_histos_moving){
    LogInfo("EEBeamCaloTask") << "event " << ievt_ << " resetting histos for moving table!! ";

    //     meEEBCaloE1vsCry_->setBinContent(crystal_step_ , meBBCaloEne_[4]->getMean() );
    //     meEEBCaloE1vsCry_->setBinError(crystal_step_ , meBBCaloEne_[4]->getRMS() );
    //     meEEBCaloE3x3vsCry_->setBinContent(crystal_step_ , meBBCaloE3x3_->getMean() );
    //     meEEBCaloE3x3vsCry_->setBinError(crystal_step_ , meBBCaloE3x3_->getRMS() );

    //     meEEBCaloEntriesVsCry_->setBinContent(crystal_step_ ,  meBBCaloE3x3_->getEntries() );

    table_step_++;


    //here the follwowing histos should be reset
    // for (int u=0;u<cryInArray_;u++){
    //  meBBCaloPulseProfMoving_[u]->Reset();
    //  meBBCaloPulseProfG12Moving_[u]->Reset();
    //  meBBCaloGainsMoving_[u]->Reset();
    //  meBBCaloEneMoving_[u]->Reset();
    // }
    // meBBCaloCryReadMoving_->Reset();
    meBBCaloE3x3Moving_->Reset();

  }


  if(reset_histos_stable){
    if( event - event_last_reset_ > 30){//to be tuned, to avoid a double reset for the change in the table status and
                                        //in the crystal in beam. This works ONLY if the crystal in beam stay the same
                                        // while the table is moving.
                                        //One can also think to remove the reset of the histograms when the table change
                                        // status from moving to stable, and to leave the reset only if the cry_in_beam changes.

      LogInfo("EEBeamCaloTask") << "event " << ievt_ << " resetting histos for stable table!! ";

      //       meEEBCaloE1vsCry_->setBinContent(crystal_step_ , meBBCaloEne_[4]->getMean() );
      //       meEEBCaloE1vsCry_->setBinError(crystal_step_ , meBBCaloEne_[4]->getRMS() );
      //       meEEBCaloE3x3vsCry_->setBinContent(crystal_step_ , meBBCaloE3x3_->getMean() );
      //       meEEBCaloE3x3vsCry_->setBinError(crystal_step_ , meBBCaloE3x3_->getRMS() );
      //       //
      //       meEEBCaloEntriesVsCry_->setBinContent(crystal_step_ ,  meBBCaloE3x3_->getEntries() );

      event_last_reset_ = event;

      last_cry_in_beam_ = cry_in_beam;
      crystal_step_++;

      //here the follwowing histos should be reset
      for (int u=0;u<cryInArray_;u++){
        meBBCaloPulseProf_[u]->Reset();
        meBBCaloPulseProfG12_[u]->Reset();
        meBBCaloGains_[u]->Reset();
        meBBCaloEne_[u]->Reset();
      }
      meBBCaloCryRead_->Reset();
      meBBCaloE3x3_->Reset();
      meEEBCaloBeamCentered_->Reset();
    }
  }

 if(skip_this_event){
   LogInfo("EEBeamCaloTask") << "event " << event <<" analyzed: "<<ievt_ << " : skipping this event!! ";
   return;}

 // now CrystalsDone_ contains the crystal on beam at the beginning fo a new step, and not when it has finished !!
 // <5 just to avoid that we skip the event just after the reset and we do not set CrystalsDone_ .
 // if( ievt_ - event_last_reset_ < 5){ CrystalsDone_->setBinContent(cry_in_beam , crystal_step_ );}
 CrystalsDone_->setBinContent(cry_in_beam , crystal_step_ );
  int eta_c = ( cry_in_beam-1)/20 ;
  int phi_c = ( cry_in_beam-1)%20 ;

  float xie = eta_c + 0.5;
  float xip = phi_c + 0.5;
  if (!tb_moving) {meBBCaloCryOnBeam_->Fill(xie,xip);}

  Handle<EBDigiCollection> digis;
  e.getByLabel(EBDigiCollection_, digis);
  int nebd = digis->size();
  //  LogDebug("EEBeamCaloTask") << "event " << ievt_ << " digi collection size " << nebd;

  meBBNumCaloCryRead_->Fill(nebd);

  //matrix 7x7 around cry in beam
  int cry_to_beRead[49]; //0 or -1 for non existing crystals (eg 852)
  for(int u=0;u<49;u++){cry_to_beRead[u]=0;}
  // chech that all the crystals in the 7x7 exist
  for(int de=-3; de<4; de++){
    for(int dp=-3; dp<4; dp++){
      //int cry_num = (phi_c+dp) + 20*(eta_c+de) +1;
      int u = de -7*dp + 24;
      bool existing_cry = (phi_c+dp) >= 0 && (phi_c+dp) <= 19 && (eta_c+de) >=0 && (eta_c+de) <= 84;
      if(!existing_cry){cry_to_beRead[u]=-1;}
    }
  }


  meEEBCaloEntriesVsCry_->Fill(cry_in_beam);

  for ( EBDigiCollection::const_iterator digiItr = digis->begin(); digiItr != digis->end(); ++digiItr ) {

    EBDetId id = digiItr->id();

    int ic = id.ic();
    int ie = (ic-1)/20;
    int ip = (ic-1)%20;

    int deta_c= ie - eta_c;
    int dphi_c= ip - phi_c;
    if (! tb_moving){meBBCaloCryRead_->Fill(deta_c, dphi_c);}
    //else {meBBCaloCryReadMoving_->Fill(deta_c, dphi_c);}

    if(abs(deta_c) >3 || abs(dphi_c) >3){continue;}
    int i_toBeRead = deta_c -7*dphi_c + 24;
    if( i_toBeRead > -1 &&  i_toBeRead <49){
      cry_to_beRead[i_toBeRead]++;
      //if( (ievt_ == 4000 || ievt_ == 13000 || ievt_ == 13002 ) &&   i_toBeRead == 5){ cry_to_beRead[i_toBeRead] -=1;}
    }

    if(abs(deta_c) >1 || abs(dphi_c) >1){continue;}
    int i_in_array = deta_c -3*dphi_c + 4;


    //LogDebug("EEBeamCaloTask") << " det id = " << id;
    //LogDebug("EEBeamCaloTask") << " sm, ieta, iphi " << ism << " " << ie << " " << ip;
    //LogDebug("EEBeamCaloTask") << " deta, dphi, i_in_array, i_toBeRead " << deta_c  << " " <<  dphi_c << " " <<i_in_array<<" "<<i_toBeRead;

    if( i_in_array < 0 || i_in_array > 8 ){continue;}

    EBDataFrame dataframe = (*digiItr);

    for (int i = 0; i < 10; i++) {
      int adc = dataframe.sample(i).adc();
      int gainid = dataframe.sample(i).gainId();
      //if( (ievt_ == 15400 || ievt_ == 15600 || ievt_ == 15700 ) &&   i_in_array == 4 && i == 4){ gainid =2;}
      //if( (ievt_ == 15400 || ievt_ == 15600 || ievt_ == 15700 ) &&   i_in_array == 6 && i == 6){ gainid =3;}

      if ( gainid == 1 ){// gain 12
        if(! tb_moving){
          meBBCaloPulseProfG12_[i_in_array]->Fill(i,float(adc));
          meBBCaloPulseProf_[i_in_array]->Fill(i,float(adc));
          meBBCaloGains_[i_in_array]->Fill(12);
        }
        //else{
        //  meBBCaloPulseProfG12Moving_[i_in_array]->Fill(i,float(adc));
        //  meBBCaloPulseProfMoving_[i_in_array]->Fill(i,float(adc));
        //  meBBCaloGainsMoving_[i_in_array]->Fill(12);
        //}
      }
      else if ( gainid == 2 ){// gain 6
        float val = (float(adc)-defaultPede_)*2 + defaultPede_;
        if(! tb_moving){
          meBBCaloPulseProf_[i_in_array]->Fill(i,val);
          meBBCaloGains_[i_in_array]->Fill(6);
        }
        //else{
        //  meBBCaloPulseProfMoving_[i_in_array]->Fill(i,val);
        //  meBBCaloGainsMoving_[i_in_array]->Fill(6);
        //}
      }
      else if ( gainid == 3 ){// gain 1
        float val = (float(adc)-defaultPede_)*12 + defaultPede_;
        if(! tb_moving){
        meBBCaloPulseProf_[i_in_array]->Fill(i,val);
        meBBCaloGains_[i_in_array]->Fill(1);
        }
        //else{
        //meBBCaloPulseProfMoving_[i_in_array]->Fill(i,val);
        //meBBCaloGainsMoving_[i_in_array]->Fill(1);
        //}
      }
    }// end of loop over samples
  }// end of loop over digis

  //now  if everything was correct cry_to_beRead should be filled with 1 or -1 but not 0
  bool all_cry_readout = true;

  // if( ievt_ == 4000 || ievt_ == 13000 || ievt_ == 13002 ) {all_cry_readout = false;}
  if(all_cry_readout){ meBBCaloAllNeededCry_->Fill(1.5);}//bin3
  else {
    meBBCaloAllNeededCry_->Fill(-0.5);//bin1
    if( tb_moving ) {meEEBCaloReadCryErrors_->Fill( crystal_step_+0.5 );}
    else {meEEBCaloReadCryErrors_->Fill( crystal_step_ );}
  }

  //the part involving rechits

  Handle<EcalUncalibratedRecHitCollection> hits;
  e.getByLabel(EcalUncalibratedRecHitCollection_, hits);
  int neh = hits->size();
  LogDebug("EEBeamCaloTask") << "event " << event <<" analyzed: "<< ievt_ << " hits collection size " << neh;
  float ene3x3=0;
  float maxEne = 0;
  int ieM =-1, ipM = -1;//for the crystal with maximum energy deposition
  float cryInBeamEne =0;
  for ( EcalUncalibratedRecHitCollection::const_iterator hitItr = hits->begin(); hitItr != hits->end(); ++hitItr ) {

    EBDetId id = hitItr->id();

    int ic = id.ic();
    int ie = (ic-1)/20;
    int ip = (ic-1)%20;

    int deta_c= ie - eta_c;
    int dphi_c= ip - phi_c;


    int i_in_array = deta_c -3*dphi_c + 4;
    //LogDebug("EEBeamCaloTask") << " rechits det id = " << id;
    //LogDebug("EEBeamCaloTask") << " rechits sm, ieta, iphi " << ism << " " << ie << " " << ip;
    //LogDebug("EEBeamCaloTask") << " rechits deta, dphi, i_in_array" << deta_c  << " " <<  dphi_c << " " <<i_in_array;

    float R_ene = hitItr->amplitude();
    if ( R_ene <= 0. ) R_ene = 0.0;
    if(R_ene > maxEne){
      maxEne=R_ene;
      ieM =ie; ipM = ip;
    }
    if(abs(deta_c) >1 || abs(dphi_c) >1){continue;}
    meEEBCaloBeamCentered_->Fill(deta_c,dphi_c,R_ene);

    if( i_in_array < 0 || i_in_array > 8 ){continue;}

    //LogDebug("EEBeamCaloTask") <<"In the array, cry: "<<ic<<" rec ene: "<<R_ene;

    if(i_in_array == 4){cryInBeamEne = R_ene;}
    if(! tb_moving){meBBCaloEne_[i_in_array]->Fill(R_ene);}
    //else{meBBCaloEneMoving_[i_in_array]->Fill(R_ene);}
    ene3x3 += R_ene;

  }//end of loop over rechits

  if (!tb_moving){
    meBBCaloE3x3_->Fill(ene3x3);
    meEEBCaloE1vsCry_->Fill(cry_in_beam , cryInBeamEne );
    meEEBCaloE3x3vsCry_->Fill(cry_in_beam, ene3x3 );
    //     if( cry_in_beam > 0 && cry_in_beam < 851){
    //       meBBCaloE3x3Cry_[cry_in_beam]->Fill(ene3x3);
    //       meBBCaloE1Cry_[cry_in_beam]->Fill(cryInBeamEne);
    //     }
    meBBCaloMaxEneCry_->Fill(ieM,ipM);
    meEEBCaloE1MaxCry_->Fill(maxEne);
  }
  else{meBBCaloE3x3Moving_->Fill(ene3x3);}
}

---