TRTCalibrator.cxx

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/*
  Copyright (C) 2002-2025 CERN for the benefit of the ATLAS collaboration
*/
 
/********************************************************************
 
   NAME: TRTCalibrator.cxx    
PACKAGE: TRTCalibTools 
 
AUTHORS: Johan Lundquist  
CREATED: 27-03-2009 
 
PURPOSE: Tool for calibrating the TRT
          
********************************************************************/
 
#include "TRTCalibrator.h"
#include "Calibrator.h"
#include "TRT_CalibData/TrackInfo.h"
#include "TrkTrack/Track.h"
#include "TrkParameters/TrackParameters.h"
#include "TrkEventPrimitives/LocalParameters.h"
#include "EventPrimitives/EventPrimitives.h"
 
#include "TrkRIO_OnTrack/RIO_OnTrack.h"
#include "InDetRIO_OnTrack/TRT_DriftCircleOnTrack.h"
#include "InDetPrepRawData/TRT_DriftCircle.h"
#include "TrkPrepRawData/PrepRawData.h"
#include "AtlasDetDescr/AtlasDetectorID.h"
#include "InDetIdentifier/TRT_ID.h"
#include "TRT_ConditionsData/RtRelation.h"
#include "TRT_ConditionsData/BasicRtRelation.h"
#include "TRT_ConditionsData/DinesRtRelation.h"
#include "TRT_ConditionsData/BinnedRtRelation.h"
#include "CommissionEvent/ComTime.h"
#include "TRT_ReadoutGeometry/TRT_DetectorManager.h"
 
#include <TNtuple.h>
#include <TFile.h>
#include <fstream>
 
 
TRTCalibrator::TRTCalibrator(const std::string& type, const std::string& name, const IInterface* parent) :
  AthAlgTool(type, name, parent),
  m_DetID(nullptr),
  m_TRTID(nullptr),
  m_trtmanager(nullptr)
{
  declareInterface<ITRTCalibrator>(this);
}
 
 
StatusCode TRTCalibrator::initialize()
{
  ATH_MSG_INFO( "initialize()" );
  
  m_trtmanager=nullptr; 
  
  if ((detStore()->retrieve(m_DetID,"AtlasID")).isFailure()) {
    ATH_MSG_FATAL( "Problem retrieving ATLASDetectorID helper" );
    return StatusCode::FAILURE;
  }
  if ((detStore()->retrieve(m_trtmanager,m_ntrtmanager)).isFailure()) {
    ATH_MSG_FATAL ( "Could not get TRT_DetectorManager" );
    return StatusCode::FAILURE;
  }
  if ((detStore()->retrieve(m_TRTID)).isFailure()) {
    ATH_MSG_FATAL( "Problem retrieving TRTID helper" );
    return StatusCode::FAILURE;
  }
  if(m_trtcaldbTool.retrieve().isFailure()) {
    ATH_MSG_FATAL( "Could not get TRTCalDbTool !" );
    return StatusCode::FAILURE;
  }
  if(StatusCode::SUCCESS!=m_neighbourSvc.retrieve() ) {
    ATH_MSG_FATAL("Could not get TRTStrawNeighbourTool !");
    return StatusCode::FAILURE;
  }
 
 
  // The tool to get the argon status:
 
   if (m_TRTStrawSummaryTool.retrieve().isFailure() ) {
      ATH_MSG_ERROR ("Failed to retrieve StrawStatus Summary " << m_TRTStrawSummaryTool);
      return StatusCode::FAILURE;
   } else {
     ATH_MSG_INFO( "Retrieved tool " << m_TRTStrawSummaryTool );
   }
 
 
 
  /* 
     Pre-define standard calibration configuration
 
     The string-vectors "CalibrateRt" ("CalibrateT0") contains the names of the levels for 
     which R-t (T0) calibration should be performed
 
     The string-vector "PrintLog" contains the names of the levels for which a status line
     should be printed to the output log
 
     The string-vectors "PrintT0Out" and "PrintRtOut" contains the names of the levels for 
     text files containing the calibration constants should be generated
 
     This standard configuration divides the Barrel in 9 parts: 
     
     "all": a single calibration for all hits in the whole TRT
     "-1" & "1": calibration of the barrel C- & A-side
     "X_Y": calibration of layer Y in barrel X-side
  */ 
 
  //the whole TRT
  m_config["all"].selections["Detector"].insert(CALIB_NONE); // don't go deeper than TRT level
  m_config["all"].selections["Layer"].insert(CALIB_NONE);
  m_config["all"].selections["Module"].insert(CALIB_NONE);
  m_config["all"].selections["Board"].insert(CALIB_NONE);
  m_config["all"].selections["Chip"].insert(CALIB_NONE);
  m_config["all"].selections["Straw"].insert(CALIB_NONE);
  m_config["all"].CalibrateRt.emplace_back("TRT") ; //only calibrate R-t and T0 on TRT level
  m_config["all"].CalibrateT0.emplace_back("TRT") ;
  m_config["all"].PrintLog.emplace_back("TRT") ;
  m_config["all"].PrintT0Out.emplace_back("TRT") ;
  m_config["all"].PrintRtOut.emplace_back("TRT") ;
 
  //common for all barrel/ec
  m_config["subdet"].CalibrateRt.emplace_back("TRT") ;  //calibrate R-t and T0 on TRT and barrel/ec level
  m_config["subdet"].CalibrateRt.emplace_back("Detector") ;
  m_config["subdet"].CalibrateT0=m_config["subdet"].CalibrateRt;
  m_config["subdet"].NoHistograms.emplace_back("TRT") ; //don't write root histogram on TRT level
  m_config["subdet"].PrintLog=m_config["subdet"].CalibrateRt;
  m_config["subdet"].PrintT0Out.emplace_back("Detector") ;
  m_config["subdet"].PrintRtOut.emplace_back("Detector") ;
 
  //individual barrel/ec
  m_config["1"]=m_config["subdet"];
  m_config["1"].selections["Detector"].insert(1);
  m_config["1"].selections["Layer"].insert(CALIB_NONE); // don't go deeper than barrel/ec level
  m_config["1"].selections["Module"].insert(CALIB_NONE);
  m_config["1"].selections["Board"].insert(CALIB_NONE);
  m_config["1"].selections["Chip"].insert(CALIB_NONE);
  m_config["1"].selections["Straw"].insert(CALIB_NONE);
  m_config["-1"]=m_config["subdet"];
  m_config["-1"].selections["Detector"].insert(-1);
  m_config["-1"].selections["Layer"].insert(CALIB_NONE);
  m_config["-1"].selections["Module"].insert(CALIB_NONE);
  m_config["-1"].selections["Board"].insert(CALIB_NONE);
  m_config["-1"].selections["Chip"].insert(CALIB_NONE);
  m_config["-1"].selections["Straw"].insert(CALIB_NONE);
 
  //common for all layers
  m_config["layer"].CalibrateRt.emplace_back("TRT") ;  //calibrate R-t and T0 on all levels (except Straw level)
  m_config["layer"].CalibrateRt.emplace_back("Detector") ;
  m_config["layer"].CalibrateRt.emplace_back("Layer") ;
  m_config["layer"].CalibrateRt.emplace_back("Module") ;
  m_config["layer"].CalibrateRt.emplace_back("Board") ;
  m_config["layer"].CalibrateRt.emplace_back("Chip") ;
  m_config["layer"].CalibrateT0=m_config["layer"].CalibrateRt;
  m_config["layer"].NoHistograms.emplace_back("TRT") ; //don't write root histogram on TRT, barrel/ec, straw level
  m_config["layer"].NoHistograms.emplace_back("Detector") ;
  m_config["layer"].NoHistograms.emplace_back("Straw") ;
  m_config["layer"].PrintLog=m_config["layer"].CalibrateRt;
  m_config["layer"].PrintT0Out.emplace_back("Layer") ;
  m_config["layer"].PrintT0Out.emplace_back("Module") ;
  m_config["layer"].PrintT0Out.emplace_back("Board") ;
  m_config["layer"].PrintT0Out.emplace_back("Chip") ;
  m_config["layer"].PrintT0Out.emplace_back("Straw") ; //print txt output for each straw
  m_config["layer"].PrintRtOut.emplace_back("Layer") ;
  m_config["layer"].PrintRtOut.emplace_back("Module") ;
  m_config["layer"].PrintRtOut.emplace_back("Board") ;
  m_config["layer"].PrintRtOut.emplace_back("Chip") ;
  m_config["layer"].PrintRtOut.emplace_back("Straw") ; //print txt output for each straw
 
  //individual layers
  m_config["1_0"]=m_config["layer"];
  m_config["1_0"].selections["Detector"].insert(1);
  m_config["1_0"].selections["Layer"].insert(0);
  m_config["1_1"]=m_config["layer"];
  m_config["1_1"].selections["Detector"].insert(1);
  m_config["1_1"].selections["Layer"].insert(1);
  m_config["1_2"]=m_config["layer"];
  m_config["1_2"].selections["Detector"].insert(1);
  m_config["1_2"].selections["Layer"].insert(2);
  m_config["-1_0"]=m_config["layer"];
  m_config["-1_0"].selections["Detector"].insert(-1);
  m_config["-1_0"].selections["Layer"].insert(0);
  m_config["-1_1"]=m_config["layer"];
  m_config["-1_1"].selections["Detector"].insert(-1);
  m_config["-1_1"].selections["Layer"].insert(1);
  m_config["-1_2"]=m_config["layer"];
  m_config["-1_2"].selections["Detector"].insert(-1);
  m_config["-1_2"].selections["Layer"].insert(2);
 
  return StatusCode::SUCCESS;
}
 
 
StatusCode TRTCalibrator::finalize()
{
  return StatusCode::SUCCESS;
}
 
 
std::string TRTCalibrator::SubLev(std::string pat, int lev){  
  
  std::string sublev;
 
  for (int i=0;i<lev;i++){
    pat.replace(pat.find('_'),1,"");
    sublev = pat.substr(0,pat.find('_'));
    pat.replace(0,pat.find('_'),"");
  }
  return sublev;
}
 
void TRTCalibrator::DumpStrawData(int isid){  
  
  std::map<std::string,int> strawmap;
  Identifier ident=(Identifier)(isid);
 
 
 
  std::string strawkey=std::string(Form("%i %i %i %i %i", 
        (int)m_TRTID->barrel_ec(ident), 
        (int)m_TRTID->layer_or_wheel(ident) ,
        (int)m_TRTID->phi_module(ident) ,
        (int)m_TRTID->straw_layer(ident) ,
        (int)m_TRTID->straw(ident)));
  strawmap[strawkey]=isid;
}
 
 
bool TRTCalibrator::IsSubLev(const std::string& key, int lev, const std::string& sublev){  
  
  std::string sl=sublev;
 
  if (sl.compare(SubLev(key,lev))==0) return true;
 
   while(sl.compare(sl.substr(sl.find(',')+1))!=0){
     if (SubLev(key,lev).compare(sl.substr(0,sl.find(',')))==0) return true;
     sl=sl.substr(sl.find(',')+1);
     if (SubLev(key,lev).compare(sl.substr(0,sl.find(',')))==0) return true;
   }
  return false;
 
}
 
int TRTCalibrator::GetSubLevels(const std::string& key, int lev, std::set<int>* levels){ 
 
  std::string sl=SubLev(key,lev);
 
  if (sl.compare("-")==0) {
    levels->insert(-4); 
    return 999;
  }
  if (sl.compare("*")==0) {
    levels->insert(-3); 
    return 999;
  }
 
  if(sl.find(',')!=std::string::npos){
    int value;
    while(sl.find(',')!=std::string::npos){
      sscanf(sl.substr(0,sl.find(',')).data(),"%i",&value);
      levels->insert(value);
      sl=sl.substr(sl.find(',')+1);
    }
    sscanf(sl.data(),"%i",&value);
    levels->insert(value);
    return levels->size();
  }
 
  if(sl.find('t')!=std::string::npos){
    int min,max;
    sscanf(sl.substr(0,sl.find('t')).data(),"%i",&min);
    ATH_MSG_INFO( "min=" << min );
    sl=sl.substr(sl.find('t')+1);
    sscanf(sl.data(),"%i",&max);
    ATH_MSG_INFO("max=" << max);
    for (int imod=min; imod<=max; imod++){
      levels->insert(imod);
    }
    return levels->size();
  }
 
  int value;
  sscanf(sl.data(),"%i",&value);
  levels->insert(value);
  return levels->size();
 
}
 
void TRTCalibrator::MakeBDKeys(int bec, int low, int mod, int brd, int chp, int strawid){
  //make map keys for the board-chip view
 
  char ckey[100];
  sprintf(ckey,"_%i_%i_%i_%i_%i_%i",bec,low,mod,brd,chp,strawid); m_Skey=std::string(ckey);
  sprintf(ckey,"_%i_%i_%i_%i_%i",bec,low,mod,brd,chp); m_Ckey=std::string(ckey);
  sprintf(ckey,"_%i_%i_%i_%i",bec,low,mod,brd); m_Bkey=std::string(ckey);
  sprintf(ckey,"_%i_%i_%i",bec,low,mod); m_Mkey=std::string(ckey);
  sprintf(ckey,"_%i_%i",bec,low); m_Lkey=std::string(ckey);
  sprintf(ckey,"_%i",bec); m_Dkey=std::string(ckey);
  sprintf(ckey,"_all"); m_Tkey=std::string(ckey);
 
  sprintf(ckey,"_%i_%i",abs(bec),low); m_Lkey_acc=std::string(ckey);
  sprintf(ckey,"_%i",abs(bec)); m_Dkey_acc=std::string(ckey);
 
}
 
bool TRTCalibrator::calibrate ATLAS_NOT_THREAD_SAFE () {
 
  float sid;
  Identifier ident;
  const InDetDD::TRT_BaseElement* strawelement;
  const InDetDD::TRT_BarrelElement* barrelelement;
  const InDetDD::TRT_EndcapElement* endcapelement;
  int nTRThist=0, ndethist=0, nlayhist=0, nmodhist=0, nbrdhist=0, nchphist=0, nstwhist=0;
  int nTRThistAr=0, ndethistAr=0, nlayhistAr=0, nmodhistAr=0, nbrdhistAr=0, nchphistAr=0, nstwhistAr=0;
  databundle hitdata;
  
  std::string infile=m_hittuple;
  std::string outfile="calibout";
  
  std::string detname="Detector";
  std::string layname="Layer";
  if (!m_SplitBarrel) {
    detname="WholeBarrel";
    layname="WholeBarrelLayer";
  }    
 
  //create Calibrator objects for each sub-level
  Calibrator TRT(0,"TRT",m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Detector(1,detname.data(),m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Layer(2,layname.data(),m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Module(3,"Module",m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Board(4,"Board",m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Chip(5,"Chip",m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Straw(6,"Straw",m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
 
 
  // make a map of calibrators (so that they can be looped over)
  std::map<std::string,Calibrator*> calibrators;
  calibrators["TRT"]=&TRT;
  calibrators["Detector"]=&Detector;
  calibrators["Layer"]=&Layer;
  calibrators["Module"]=&Module;
  calibrators["Board"]=&Board;
  calibrators["Chip"]=&Chip;
  calibrators["Straw"]=&Straw;
 
  //use default configurations unless "user" option is used
  if(m_calsub!="user"){
    m_doRt=m_config[m_calsub].CalibrateRt;
    m_doT0=m_config[m_calsub].CalibrateT0;
    m_doRes=m_config[m_calsub].FitResidual;
    m_beQuiet=m_config[m_calsub].NoHistograms;
    m_doOutPrint=m_config[m_calsub].PrintT0Out;
    m_doRtPrint=m_config[m_calsub].PrintRtOut;
    m_doLogPrint=m_config[m_calsub].PrintLog;    
  }
 
  //configure the calibrators
  for (const std::string& s : m_doRt)        calibrators[s]->dort=true;
  for (const std::string& s : m_doT0)        calibrators[s]->dot0=true;
  for (const std::string& s : m_doRes)       calibrators[s]->dores=true;
  for (const std::string& s : m_beQuiet)     calibrators[s]->bequiet=true;
  for (const std::string& s : m_doOutPrint)  calibrators[s]->printt0=true;
  for (const std::string& s : m_doRtPrint)   calibrators[s]->printrt=true;
  for (const std::string& s : m_doLogPrint)  calibrators[s]->printlog=true;
  for (const std::string& s : m_useBoardRef) calibrators[s]->usebref=true;
  for (std::pair<const std::string, Calibrator*>& p : calibrators) {
    Calibrator* calib = p.second;
    calib->usep0=m_useP0;
    calib->floatp3=m_floatP3;
    calib->useshortstraws=m_DoShortStrawCorrection;
 
    if (m_doRt.size()==0) calib->nort=true;
    if (m_doT0.size()==0) calib->not0=true;
    
    std::set<int> selset;
    GetSubLevels(m_selstring,calib->level+1,&selset); //get the set of selections for level "level+1" from the m_selstring ...
    for (std::set<int>::iterator imod=selset.begin(); imod!=selset.end(); ++imod){
      calib->selection = selset;//... and configure the calibrator with them
    }
  }     
 
  // FOR ARGON:
  Calibrator TRT_Ar     (0,"TRT_Ar"     ,m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Detector_Ar(1,"Detector_Ar",m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Layer_Ar   (2,"Layer_Ar"   ,m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Module_Ar  (3,"Module_Ar"  ,m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Board_Ar   (4,"Board_Ar"   ,m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Chip_Ar    (5,"Chip_Ar"    ,m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
  Calibrator Straw_Ar   (6,"Straw_Ar"   ,m_mint0,m_minrt,m_rtrel,m_rtbinning,m_t0offset);
 
  // make a map of calibrators (so that they can be looped over)
  std::map<std::string,Calibrator*>     calibratorsAr;
  calibratorsAr["TRT"]                  =&TRT_Ar;
  calibratorsAr["Detector"]             =&Detector_Ar;
  calibratorsAr["Layer"]                =&Layer_Ar;
  calibratorsAr["Module"]               =&Module_Ar;
  calibratorsAr["Board"]                =&Board_Ar;
  calibratorsAr["Chip"]                 =&Chip_Ar;
  calibratorsAr["Straw"]                =&Straw_Ar;
 
  //configure the calibrators
  for (const std::string& s : m_doRt)        calibratorsAr[s]->dort=true;
  for (const std::string& s : m_doT0)        calibratorsAr[s]->dot0=true;
  for (const std::string& s : m_doRes)       calibratorsAr[s]->dores=true;
  for (const std::string& s : m_beQuiet)     calibratorsAr[s]->bequiet=true;
  for (const std::string& s : m_doOutPrint)  calibratorsAr[s]->printt0=true;
  for (const std::string& s : m_doRtPrint)   calibratorsAr[s]->printrt=true;
  for (const std::string& s : m_doLogPrint)  calibratorsAr[s]->printlog=true;
  for (const std::string& s : m_useBoardRef) calibratorsAr[s]->usebref=true;
  for (std::pair<const std::string, Calibrator*>& p : calibratorsAr) {
    Calibrator* calib = p.second;
    calib->usep0=m_useP0;
    calib->floatp3=m_floatP3;
    calib->useshortstraws=m_DoShortStrawCorrection;
 
    if (m_doRt.size()==0) calib->nort=true;
    if (m_doT0.size()==0) calib->not0=true;
 
    std::set<int> selset;
    GetSubLevels(m_selstring,calib->level+1,&selset); //get the set of selections for level "level+1" from the m_selstring ... 
    for (std::set<int>::iterator imod=selset.begin(); imod!=selset.end(); ++imod){
      calib->selection = selset;//... and configure the calibrator with them
    }
  }
 
 
 
  m_options = '_' + TRT.GetOptString() + '_' + Detector.GetOptString() + '_' + Layer.GetOptString() + '_' + Module.GetOptString() + '_' + Board.GetOptString() + '_' + Chip.GetOptString() + '_' + Straw.GetOptString();
  if(m_calsub!="user") m_selstring = '_' + TRT.GetSelString() + '_' + Detector.GetSelString() + '_' + Layer.GetSelString() + '_' + Module.GetSelString() + '_' + Board.GetSelString() + '_' + Chip.GetSelString() + '_' + Straw.GetSelString();
  
  //print some info
  ATH_MSG_INFO(" ");
  ATH_MSG_INFO( "INPUT FILE       : " << infile ); 
  ATH_MSG_INFO( "OUTPUT FILE      : " << outfile ); 
  ATH_MSG_INFO( "SELECTION STRING : " << m_selstring ); 
  ATH_MSG_INFO( "OPTION STRING    : " << m_options ); 
  ATH_MSG_INFO( "RT RELATION      : " << m_rtrel ); 
  ATH_MSG_INFO( "MIN STATISTICS   : RT=" << m_minrt << ", T0=" << m_mint0 ); 
  ATH_MSG_INFO( "T0 OFFSET        : " << m_t0offset ); 
  ATH_MSG_INFO(" ");
  ATH_MSG_INFO( TRT.PrintInfo() );
  ATH_MSG_INFO( Detector.PrintInfo() );
  ATH_MSG_INFO( Layer.PrintInfo() );
  ATH_MSG_INFO( Module.PrintInfo() );
  ATH_MSG_INFO( Board.PrintInfo() );
  ATH_MSG_INFO( Chip.PrintInfo() );
  ATH_MSG_INFO( Straw.PrintInfo() );
  ATH_MSG_INFO(" ");
 
  if (m_DoArXenonSep){
  //print some info
    ATH_MSG_INFO(" ");
    ATH_MSG_INFO( "Setup for the ARGON Straws: " );
    ATH_MSG_INFO( "INPUT FILE       : " << infile );
    ATH_MSG_INFO( "OUTPUT FILE      : " << outfile );
    ATH_MSG_INFO( "SELECTION STRING : " << m_selstring );
    ATH_MSG_INFO( "OPTION STRING    : " << m_options );
    ATH_MSG_INFO( "RT RELATION      : " << m_rtrel );
    ATH_MSG_INFO( "MIN STATISTICS   : RT=" << m_minrt << ", T0=" << m_mint0 );
    ATH_MSG_INFO( "T0 OFFSET        : " << m_t0offset );
    ATH_MSG_INFO( " ");
    ATH_MSG_INFO( TRT_Ar.PrintInfo() );
    ATH_MSG_INFO( Detector_Ar.PrintInfo() );
    ATH_MSG_INFO( Layer_Ar.PrintInfo() );
    ATH_MSG_INFO( Module_Ar.PrintInfo() );
    ATH_MSG_INFO( Board_Ar.PrintInfo() );
    ATH_MSG_INFO( Chip_Ar.PrintInfo() );
    ATH_MSG_INFO( Straw_Ar.PrintInfo() );
    ATH_MSG_INFO(" ");
  }
  //read the chip reference t0 values from finedelays.txt
  int rbrd, rchp, rdet, dum;
  float rt0;
  std::map<std::string,float> reft0map;
  std::ifstream t0ref("finedelays.txt",std::ios::in);
  if(t0ref.is_open()) ATH_MSG_INFO(" Opened finedelays.txt ");
  for(int iref=0;iref<208;iref++){
    t0ref >> rbrd >> rchp >> rdet >> dum >> rt0;
    reft0map[std::string(Form("_%i_%i_%i",rdet,rbrd,rchp))]=rt0;
  }
 
  t0ref.close();
 
  
  //set type of rt-relation
  bool isdines = (m_rtrel.value()).find("dines")!=std::string::npos;
  bool isbinned = (m_rtrel.value()).find("binned")!=std::string::npos;
  int rtint;
  if (isdines) rtint=2;
  else if (isbinned) rtint=1;
  else rtint=0;
  ATH_MSG_INFO(" Rt relation is: " << rtint);
  
  int npop,isid;
  std::map<std::string,epdata> ephasemap;
 
  // open the output histogram file
   std::unique_ptr<TFile> histfile(TFile::Open("calibout.root","RECREATE"));
 
  if(!histfile || histfile->IsZombie()) {
      ATH_MSG_ERROR ("Failed to open calibout.root ");
      return false;
  } else {      
      ATH_MSG_INFO ("Opened calibout.root ");
  }
 
    std::ifstream myFile (infile.data(), std::ios::in | std::ios::binary);
    ATH_MSG_INFO( " Opened " << infile << " as binary histogram file " );        
    int ihist=0;
    int ihistAr=0;
 
    while(true){
 
      //read a binary histogram
      //dangerous cast reproduces pre-existing c style cast
      myFile.read (reinterpret_cast<char*>(&npop),sizeof(int)); //number of populated bins
      if (myFile.eof()) break;
      std::vector<int> chist(2 * npop + 2);
      //dangerous cast reproduces pre-existing c style cast
      if (npop>0) myFile.read (reinterpret_cast<char*>(chist.data()+2), sizeof(int)*2*npop);
      //dangerous cast reproduces pre-existing c style cast
      myFile.read (reinterpret_cast<char*>(&isid),sizeof(int)); //the straw id 
      sid = (float)isid;
      if(sid<0) continue;
 
      chist[0]=npop;
      chist[1]=isid;
      //get the straw address (barrel/ec, layer, module, ...) based on the straw identifier
      ident=(Identifier)(isid);
      int chip=0,board=-1;
      m_neighbourSvc->getChip(ident,chip); 
      if(abs(m_TRTID->barrel_ec(ident))<2){
        board=m_neighbourSvc->chipToBoardBarrel(chip,m_TRTID->layer_or_wheel(ident));
      }
      else if (chip<12) {
        board=0;
      }
      else {
        chip=chip-20;
        board=1;
      }
      if (m_SplitBarrel) hitdata.det=(int)m_TRTID->barrel_ec(ident); 
      else hitdata.det=abs((int)m_TRTID->barrel_ec(ident));
      if(hitdata.det!=1 && hitdata.det!=-1 && hitdata.det!=2 && hitdata.det!=-2) {
        ATH_MSG_WARNING( " Invalid Identifier read : " << ident << "  detector decoded to be : " << hitdata.det); 
        continue; 
      }
      hitdata.lay=(int)m_TRTID->layer_or_wheel(ident);
      if( (hitdata.det==1 || hitdata.det==-1) && (hitdata.lay<0 || hitdata.lay>2) ) {
        ATH_MSG_WARNING( " Invalid Identifier read : " << ident << "  barrel layer decoded to be : " << hitdata.lay); 
        continue; 
      } else if( (hitdata.det==2 || hitdata.det==-2) && (hitdata.lay<0 || hitdata.lay>13) ) {
        ATH_MSG_WARNING( " Invalid Identifier read : " << ident << "  endcap layer decoded to be : " << hitdata.lay); 
        continue; 
      }
      hitdata.mod=(int)m_TRTID->phi_module(ident); 
      if( hitdata.mod < 0 || hitdata.mod > 31 ) {
        ATH_MSG_WARNING( " Invalid Identifier read : " << ident << "  phi-module decoded to be : " << hitdata.lay); 
        continue; 
      }
 
      hitdata.brd=board; 
      hitdata.chp=chip; 
      hitdata.stl=(int)m_TRTID->straw_layer(ident);
      if( hitdata.stl < 0 || hitdata.stl > m_TRTID->straw_layer_max(ident) ) {
        ATH_MSG_WARNING( " Invalid Identifier read : " << ident << "  straw-layer decoded to be : " << hitdata.stl); 
        continue; 
      }
 
      hitdata.stw=(int)m_TRTID->straw(ident);
      if( hitdata.stw < 0 || hitdata.stw > m_TRTID->straw_max(ident) ) {
        ATH_MSG_WARNING( " Invalid Identifier read : " << ident << "  straw decoded to be : " << hitdata.stw); 
        continue; 
      }
 
      hitdata.sid=isid;
      
      //get the old rt parameters based on straw identifier
      const float* pcal ;
      std::vector<float> rvalues ;
      const float defaultpcal[] = {0,0,0,0} ;
      if (isdines){
        const TRTCond::DinesRtRelation* rtr = dynamic_cast<const TRTCond::DinesRtRelation*>(m_trtcaldbTool->getRtRelation(ident)) ;
        pcal = rtr ? rtr->cal() : defaultpcal ;
      }
 
      else {
        const TRTCond::BasicRtRelation* rtr = dynamic_cast<const TRTCond::BasicRtRelation*>(m_trtcaldbTool->getRtRelation(ident)) ;
        pcal = rtr ? rtr->cal() : defaultpcal ;
      }
      hitdata.rtpar[0]=pcal[0];
      hitdata.rtpar[1]=pcal[1];
      hitdata.rtpar[2]=pcal[2];
      hitdata.rtpar[3]=pcal[3];
      
 
      //build map keys
      MakeBDKeys(hitdata.det, hitdata.lay, hitdata.mod, hitdata.brd, hitdata.chp, hitdata.sid);
      
      //make the level hierachy dictionaries
      m_trt.t[m_Tkey].d[m_Dkey].l[m_Lkey].m[m_Mkey].b[m_Bkey].c[m_Ckey].s[m_Skey].z=0;
      m_trt_acc.t[m_Tkey].d[m_Dkey_acc].l[m_Lkey_acc].m[m_Mkey].b[m_Bkey].c[m_Ckey].s[m_Skey].z=0;
      
      //populate the hit data structure to be added 
 
 
      hitdata.ievt=0; 
      hitdata.tres=0; 
      hitdata.weight=1.0;
      hitdata.res=0; 
      hitdata.t=0; 
      hitdata.r=0;
      hitdata.t0=m_trtcaldbTool->getT0(ident);
 
      strawelement = m_trtmanager->getElement(ident);
      if(hitdata.det==1 || hitdata.det==-1) {
    barrelelement=static_cast<const InDetDD::TRT_BarrelElement*>(strawelement);
        hitdata.x=(barrelelement->center(ident)).x();
        hitdata.y=(barrelelement->center(ident)).y();
        hitdata.z=(barrelelement->center(ident)).z();
      }else{
    endcapelement=static_cast<const InDetDD::TRT_EndcapElement*>(strawelement);
         hitdata.x=(endcapelement->center(ident)).x();
         hitdata.y=(endcapelement->center(ident)).y();
         hitdata.z=(endcapelement->center(ident)).z();
      }
      
      //in the short straws corrections, autodetect if it was applied on the previous step
      if ( m_DoShortStrawCorrection &&  hitdata.lay==0 && hitdata.stl<9){
        //If correction was done in ctes in db (readed), undo the correction: This fixes problem on t0 averaging....
        double t0test1=m_trtcaldbTool->getT0((Identifier)301998432);
        double t0test2=m_trtcaldbTool->getT0((Identifier)302001504);
        if (t0test1 != t0test2) hitdata.t0+=0.75; //short straw compensation
      }
      
      //the reference t0 from finedelays
      hitdata.rt0=reft0map[std::string(Form("_%i_%i_%i",hitdata.det,hitdata.brd,hitdata.chp))];
     
           // Prepare for Xe-Ar mixed conditions:
            int isArgonStraw = 0;
            if (m_TRTStrawSummaryTool->getStatusHT(ident, Gaudi::Hive::currentContext()) != TRTCond::StrawStatus::Good) {
                  isArgonStraw = 1;
            }
 
 
      //add histogram to the Calibrators (A and C side separated)
   if(!m_DoArXenonSep){  
  
      nTRThist += TRT.AddHit(m_Tkey,hitdata,chist.data(),true);
      if (Detector.CheckSelection(hitdata.det)) { //only add the histogram if it is in the selection
        if (m_SplitBarrel) ndethist += Detector.AddHit(m_Dkey,hitdata,chist.data(),true);
        else ndethist += Detector.AddHit(m_Dkey_acc,hitdata,chist.data(),true);
        if (Layer.CheckSelection(hitdata.lay)) {
          if (m_SplitBarrel) nlayhist += Layer.AddHit(m_Lkey,hitdata,chist.data(),true);
          else { nlayhist += Layer.AddHit(m_Lkey_acc,hitdata,chist.data(),true); continue;}
          if (Module.CheckSelection(hitdata.mod)) {
            nmodhist += Module.AddHit(m_Mkey,hitdata,chist.data(),true);
            if (Board.CheckSelection(hitdata.brd)) {
              nbrdhist += Board.AddHit(m_Bkey,hitdata,chist.data(),true);
              if (Chip.CheckSelection(hitdata.chp)) {
                nchphist += Chip.AddHit(m_Ckey,hitdata,chist.data(),true);
                if (Straw.CheckSelection(hitdata.stw))
                  nstwhist += Straw.AddHit(m_Skey,hitdata,chist.data(),true);
              }
            }
          }
        }
      }                         // Here it closes
      ihist++;
   } else  
   if(isArgonStraw==0){                      // Separate Ar and Xe in endcaps. Here Xe
      nTRThist += TRT.AddHit(m_Tkey,hitdata,chist.data(),true);
      if (Detector.CheckSelection(hitdata.det)) { //only add the histogram if it is in the selection
        if (m_SplitBarrel) ndethist += Detector.AddHit(m_Dkey,hitdata,chist.data(),true);
        else ndethist += Detector.AddHit(m_Dkey_acc,hitdata,chist.data(),true);
        if (Layer.CheckSelection(hitdata.lay)) {
          if (m_SplitBarrel) nlayhist += Layer.AddHit(m_Lkey,hitdata,chist.data(),true);
          else { nlayhist += Layer.AddHit(m_Lkey_acc,hitdata,chist.data(),true); continue;}
          if (Module.CheckSelection(hitdata.mod)) {
            nmodhist += Module.AddHit(m_Mkey,hitdata,chist.data(),true);
            if (Board.CheckSelection(hitdata.brd)) {
              nbrdhist += Board.AddHit(m_Bkey,hitdata,chist.data(),true);
              if (Chip.CheckSelection(hitdata.chp)) {
                nchphist += Chip.AddHit(m_Ckey,hitdata,chist.data(),true);
                if (Straw.CheckSelection(hitdata.stw)) {
                  nstwhist += Straw.AddHit(m_Skey,hitdata,chist.data(),true);
                }
              }
            }
          }
        }
      }                         // Here it closes
      ihist++;
   } else {               // ARGON HITS
      nTRThistAr += TRT_Ar.AddHit(m_Tkey,hitdata,chist.data(),true);
      if (Detector_Ar.CheckSelection(hitdata.det)) { //only add the histogram if it is in the selection
        if (m_SplitBarrel) ndethistAr += Detector_Ar.AddHit(m_Dkey,hitdata,chist.data(),true);
        else ndethistAr += Detector_Ar.AddHit(m_Dkey_acc,hitdata,chist.data(),true);
        if (Layer_Ar.CheckSelection(hitdata.lay)) {
          if (m_SplitBarrel) nlayhistAr += Layer_Ar.AddHit(m_Lkey,hitdata,chist.data(),true);
          else { nlayhistAr += Layer_Ar.AddHit(m_Lkey_acc,hitdata,chist.data(),true); continue;}
          if (Module_Ar.CheckSelection(hitdata.mod)) {
            nmodhistAr += Module_Ar.AddHit(m_Mkey,hitdata,chist.data(),true);
            if (Board_Ar.CheckSelection(hitdata.brd)) {
              nbrdhistAr += Board_Ar.AddHit(m_Bkey,hitdata,chist.data(),true);
              if (Chip_Ar.CheckSelection(hitdata.chp)) {
                nchphistAr += Chip_Ar.AddHit(m_Ckey,hitdata,chist.data(),true);
                if (Straw_Ar.CheckSelection(hitdata.stw)) {
                  nstwhistAr += Straw_Ar.AddHit(m_Skey,hitdata,chist.data(),true);
                }
              }
            }
          }
        }
      }                         // Here it closes
    ihistAr++;
    }                   // END ARGON HITS
 
 
    if ((ihist%10000==9999) | (ihist==m_nevents-1)){
      ATH_MSG_INFO( Form("%7i HISTOGRAMS READ, UNITS ADDED: %i %i %2i %3i %3i %4i %6i",ihist+1,nTRThist, ndethist, nlayhist, nmodhist, nbrdhist, nchphist, nstwhist) );
      if(m_DoArXenonSep) ATH_MSG_INFO( Form("%7i Ar HISTOGRAMS READ, UNITS ADDED: %i %i %2i %3i %3i %4i %6i",ihistAr+1,nTRThistAr, ndethistAr, nlayhistAr, nmodhistAr, nbrdhistAr, nchphistAr, nstwhistAr) );
    }
      
      ihist++;
    } // Finish Straw Loop
   
    ATH_MSG_INFO( Form("%7i HISTOGRAMS READ, UNITS ADDED: %i %i %2i %3i %3i %4i %6i",ihist+1,nTRThist, ndethist, nlayhist, nmodhist, nbrdhist, nchphist, nstwhist) );
    if(m_DoArXenonSep) ATH_MSG_INFO( Form("%7i Ar HISTOGRAMS READ, UNITS ADDED: %i %i %2i %3i %3i %4i %6i",ihistAr+1,nTRThistAr, ndethistAr, nlayhistAr, nmodhistAr, nbrdhistAr, nchphistAr, nstwhistAr) );
 
    TRT.UpdateOldConstants();
    Detector.UpdateOldConstants();
    Layer.UpdateOldConstants();
    Module.UpdateOldConstants();
    Board.UpdateOldConstants();
    Chip.UpdateOldConstants();
 
    if (ihistAr>0 ){
        TRT_Ar.UpdateOldConstants();
        Detector_Ar.UpdateOldConstants();
        Layer_Ar.UpdateOldConstants();
        Module_Ar.UpdateOldConstants();
        Board_Ar.UpdateOldConstants();
        Chip_Ar.UpdateOldConstants();
    }
 
    myFile.close();
 
 
  ATH_MSG_INFO(" ");
  ATH_MSG_INFO( TRT.PrintStat() );
  ATH_MSG_INFO( Detector.PrintStat() );
  ATH_MSG_INFO( Layer.PrintStat() );
  ATH_MSG_INFO( Module.PrintStat() );
  ATH_MSG_INFO( Board.PrintStat() );
  ATH_MSG_INFO( Chip.PrintStat() );
  ATH_MSG_INFO( Straw.PrintStat() );
  ATH_MSG_INFO(" ");
 
 
  if(m_DoArXenonSep){
    ATH_MSG_INFO(" ");
    ATH_MSG_INFO( TRT_Ar.PrintStat() );
    ATH_MSG_INFO( Detector_Ar.PrintStat() );
    ATH_MSG_INFO( Layer_Ar.PrintStat() );
    ATH_MSG_INFO( Module_Ar.PrintStat() );
    ATH_MSG_INFO( Board_Ar.PrintStat() );
    ATH_MSG_INFO( Chip_Ar.PrintStat() );
    ATH_MSG_INFO( Straw_Ar.PrintStat() );
    ATH_MSG_INFO(" ");
  }
 
 
 
  //caldata startdata(true,tbins,rbins);
  caldata startdata(true,55,100);
  //caldata startdata(true,64,64);
  startdata.t0=5.0;
  std::map<std::string,TDirectory*> dirmap;
  TDirectory* trtdir=gDirectory;
  TDirectory* detdir=gDirectory;
  TDirectory* laydir=gDirectory;
  TDirectory* moddir=gDirectory;
  TDirectory* brddir=gDirectory;
  TDirectory* chpdir=gDirectory;
 
  std::ofstream rtcalfile(Form("%s_rt.txt",outfile.data()),std::ios::out);
  std::ofstream binrtcalfile(Form("%s_binrt.txt",outfile.data()),std::ios::out);
  std::ofstream t0calfile(Form("%s_t0.txt",outfile.data()),std::ios::out);
 
 
  //if (m_SplitBarrel){
  
  for (std::pair<const std::string, BDdetector>& pt : m_trt.t) {
    
    if (TRT.Skip()) break;
    if (TRT.HasKey(pt.first)) {
      trtdir = TRT.Calibrate(histfile.get(),pt.first,SubLev(m_options,1),&startdata);
      if (TRT.printt0) t0calfile << Form("-3 -1 -1 -1 -1 : %e %e",TRT.data[pt.first].t0,TRT.data[pt.first].t0err) << '\n';
      if (TRT.printrt) rtcalfile << Form("-3 -1 -1 -1 -1 : %i %e %e %e %e",rtint,TRT.data[pt.first].rtpar[0],TRT.data[pt.first].rtpar[1],TRT.data[pt.first].rtpar[2],TRT.data[pt.first].rtpar[3]) << '\n';
    }
    for (std::pair<const std::string, BDlayer>& pd : pt.second.d) {
      
      if(Detector.Skip()) break; 
      if(Detector.HasKey(pd.first)){
        detdir = Detector.Calibrate(trtdir,pd.first,SubLev(m_options,2),&TRT.data[pt.first]);
      }
      for (std::pair<const std::string, BDmodule>& pl : pd.second.l) {
 
        if(Layer.Skip()) break;
        if(Layer.HasKey(pl.first)){
          laydir = Layer.Calibrate(detdir,pl.first,SubLev(m_options,3),&Detector.data[pd.first]);
          if (Layer.printt0) t0calfile << Form("%i %i -1 -1 -1 : %e %e",Layer.data[pl.first].det,Layer.data[pl.first].lay,Layer.data[pl.first].t0,Layer.data[pl.first].t0err) << '\n';
          if (Layer.printrt) rtcalfile    << Form("%i %i -1 -1 -1 : %i %e %e %e %e",Layer.data[pl.first].det,Layer.data[pl.first].lay,rtint,Layer.data[pl.first].rtpar[0],Layer.data[pl.first].rtpar[1],Layer.data[pl.first].rtpar[2],Layer.data[pl.first].rtpar[3]) << '\n';
          if (!m_SplitBarrel) {
            if (Layer.printt0) t0calfile    << Form("%i %i -1 -1 -1 : %e %e",-Layer.data[pl.first].det,Layer.data[pl.first].lay,Layer.data[pl.first].t0,Layer.data[pl.first].t0err) << '\n';
            if (Layer.printrt) rtcalfile    << Form("%i %i -1 -1 -1 : %i %e %e %e %e",-Layer.data[pl.first].det,Layer.data[pl.first].lay,rtint,Layer.data[pl.first].rtpar[0],Layer.data[pl.first].rtpar[1],Layer.data[pl.first].rtpar[2],Layer.data[pl.first].rtpar[3]) << '\n';
          }
        }
        for (std::pair<const std::string, BDboard>& pm : pl.second.m) {
 
          if(Module.Skip()) break; 
          if(Module.HasKey(pm.first)){ 
            moddir = Module.Calibrate(laydir,pm.first,SubLev(m_options,4),&Layer.data[pl.first]);
            if (Module.printt0) t0calfile << Form("%i %i %i -1 -1 : %e %e",Module.data[pm.first].det,Module.data[pm.first].lay,Module.data[pm.first].mod,Module.data[pm.first].t0,Module.data[pm.first].t0err) << '\n';
            if (Module.printrt) rtcalfile    << Form("%i %i %i -1 -1 : %i %e %e %e %e",Module.data[pm.first].det,Module.data[pm.first].lay,Module.data[pm.first].mod,rtint,Module.data[pm.first].rtpar[0],Module.data[pm.first].rtpar[1],Module.data[pm.first].rtpar[2],Module.data[pm.first].rtpar[3]) << '\n';
          } 
          for (std::pair<const std::string, BDchip>& pb : pm.second.b) {
 
            if(Board.Skip()) break; 
            if(Board.HasKey(pb.first)){ 
              brddir = Board.Calibrate(moddir,pb.first,SubLev(m_options,5),&Module.data[pm.first]);
            } 
            for (std::pair<const std::string, BDstraw>& pc : pb.second.c) {
 
              if(Chip.Skip()) break; 
              if(Chip.HasKey(pc.first)){ 
                chpdir = Chip.Calibrate(brddir,pc.first,SubLev(m_options,6),&Board.data[pb.first]);
              }
              for (std::pair<const std::string, BDzero>& ps : pc.second.s) {
 
                if(Straw.Skip()) break;
                if(Straw.HasKey(ps.first)){ 
                  Straw.Calibrate(chpdir,ps.first,SubLev(m_options,7),&Chip.data[pc.first]);
                  if (Straw.printt0) t0calfile << Form("%i %i %i %i %i : %e %e",Straw.data[ps.first].det,Straw.data[ps.first].lay,Straw.data[ps.first].mod,Straw.data[ps.first].stl,Straw.data[ps.first].stw,Straw.data[ps.first].t0,Straw.data[ps.first].t0err) << '\n';
                  if (Straw.printrt) rtcalfile << Form("%i %i %i %i %i : %i %e %e %e %e",Straw.data[ps.first].det,Straw.data[ps.first].lay,Straw.data[ps.first].mod,Straw.data[ps.first].stl,Straw.data[ps.first].stw,rtint,Straw.data[ps.first].rtpar[0],Straw.data[ps.first].rtpar[1],Straw.data[ps.first].rtpar[2],Straw.data[ps.first].rtpar[3]) << '\n';
                
 
                }
              }
            }
          }
        }
      }
    }
  }
 
  std::map<std::string,TDirectory*> dirArmap;
  TDirectory* trtdirAr=gDirectory;
  TDirectory* detdirAr=gDirectory;
  TDirectory* laydirAr=gDirectory;
  TDirectory* moddirAr=gDirectory;
  TDirectory* brddirAr=gDirectory;
  TDirectory* chpdirAr=gDirectory;
 
  if (m_DoArXenonSep){
 
  for (std::pair<const std::string, BDdetector>& pt : m_trt.t) {
 
    if (TRT_Ar.Skip()) break;
    if (TRT_Ar.HasKey(pt.first)) {
      trtdirAr = TRT_Ar.Calibrate(histfile.get(),pt.first,SubLev(m_options,1),&startdata);
    }
    for (std::pair<const std::string, BDlayer>& pd : pt.second.d) {
 
      if(Detector_Ar.Skip()) break;
      if(Detector_Ar.HasKey(pd.first)){
        detdirAr = Detector_Ar.Calibrate(trtdirAr,pd.first,SubLev(m_options,2),&TRT_Ar.data[pt.first]);
      }
      for (std::pair<const std::string, BDmodule>& pl : pd.second.l) {
 
        if(Layer_Ar.Skip()) break;
        if(Layer_Ar.HasKey(pl.first)){
          laydirAr = Layer_Ar.Calibrate(detdirAr,pl.first,SubLev(m_options,3),&Detector_Ar.data[pd.first]);
       
        }
        for (std::pair<const std::string, BDboard>& pm : pl.second.m) {
 
          if(Module_Ar.Skip()) break;
          if(Module_Ar.HasKey(pm.first)){
            moddirAr = Module_Ar.Calibrate(laydirAr,pm.first,SubLev(m_options,4),&Layer_Ar.data[pl.first]);
            if (Module_Ar.printt0) t0calfile << Form("%i %i %i -1 -1 : %e %e",Module_Ar.data[pm.first].det,Module_Ar.data[pm.first].lay,Module_Ar.data[pm.first].mod,Module_Ar.data[pm.first].t0,Module_Ar.data[pm.first].t0err) << '\n';
            if (Layer_Ar.printrt) rtcalfile    << Form("%i %i %i -1 -1 : %i %e %e %e %e",Module_Ar.data[pm.first].det,Module_Ar.data[pm.first].lay,Module_Ar.data[pm.first].mod,rtint,Module_Ar.data[pm.first].rtpar[0],Module_Ar.data[pm.first].rtpar[1],Module_Ar.data[pm.first].rtpar[2],Module_Ar.data[pm.first].rtpar[3]) << '\n';
          }
          for (std::pair<const std::string, BDchip>& pb : pm.second.b) {
            if(Board_Ar.Skip()) break;
            if(Board_Ar.HasKey(pb.first)){
              brddirAr = Board_Ar.Calibrate(moddirAr,pb.first,SubLev(m_options,5),&Module_Ar.data[pm.first]);
            }
            for (std::pair<const std::string, BDstraw>& pc : pb.second.c) {
 
              if(Chip_Ar.Skip()) break;
              if(Chip_Ar.HasKey(pc.first)){
                chpdirAr = Chip_Ar.Calibrate(brddirAr,pc.first,SubLev(m_options,6),&Board_Ar.data[pb.first]);
              }
              for (std::pair<const std::string, BDzero>& ps : pc.second.s) {
 
                if(Straw_Ar.Skip()) break;
                if(Straw_Ar.HasKey(ps.first)){
                  Straw_Ar.Calibrate(chpdirAr,ps.first,SubLev(m_options,7),&Chip_Ar.data[pc.first]);
                  if (Straw_Ar.printt0) t0calfile << Form("%i %i %i %i %i : %e %e",Straw_Ar.data[ps.first].det,Straw_Ar.data[ps.first].lay,Straw_Ar.data[ps.first].mod,Straw_Ar.data[ps.first].stl,Straw_Ar.data[ps.first].stw,Straw_Ar.data[ps.first].t0,Straw_Ar.data[ps.first].t0err) << '\n';
                  if (Straw_Ar.printrt) rtcalfile << Form("%i %i %i %i %i : %i %e %e %e %e",Straw_Ar.data[ps.first].det,Straw_Ar.data[ps.first].lay,Straw_Ar.data[ps.first].mod,Straw_Ar.data[ps.first].stl,Straw_Ar.data[ps.first].stw,rtint,Straw_Ar.data[ps.first].rtpar[0],Straw_Ar.data[ps.first].rtpar[1],Straw_Ar.data[ps.first].rtpar[2],Straw_Ar.data[ps.first].rtpar[3]) << '\n';
                }
              }
            }
          }
        }
      }
    }
  }
 
}// Close for ARGON 
 
 
 
  
  //make ntuples for each calibrator 
  if (!TRT.bequiet) TRT.WriteStat(histfile.get());
  if (!Detector.bequiet) Detector.WriteStat(histfile.get());
  if (!Layer.bequiet) Layer.WriteStat(histfile.get());
  if (!Module.bequiet) Module.WriteStat(histfile.get());
  if (!Board.bequiet) Board.WriteStat(histfile.get());
  Chip.WriteStat(histfile.get());
  Straw.WriteStat(histfile.get());
 
  TRT.DumpConstants();
  Detector.DumpConstants();
  Layer.DumpConstants();
  Module.DumpConstants();
  Board.DumpConstants();
  Chip.DumpConstants();
  Straw.DumpConstants();
  
  rtcalfile.close();
  binrtcalfile.close();
  t0calfile.close();
 
        //AR
  //make ntuples for each calibrator 
  if(m_DoArXenonSep){
    if (!TRT_Ar.bequiet)          TRT_Ar.WriteStat(histfile.get());
    if (!Detector_Ar.bequiet)     Detector_Ar.WriteStat(histfile.get());
    if (!Layer_Ar.bequiet)        Layer_Ar.WriteStat(histfile.get());
    if (!Module_Ar.bequiet)       Module_Ar.WriteStat(histfile.get());
    if (!Board_Ar.bequiet)        Board_Ar.WriteStat(histfile.get());
    Chip_Ar.WriteStat(histfile.get());
    Straw_Ar.WriteStat(histfile.get());
 
   TRT_Ar.DumpConstants();
   Detector_Ar.DumpConstants();
   Layer_Ar.DumpConstants();
   Module_Ar.DumpConstants();
   Board_Ar.DumpConstants();
   Chip_Ar.DumpConstants();
   Straw_Ar.DumpConstants();
  }
 
  histfile->ls();  
  ATH_MSG_INFO( "writing out calibout.root");  
  histfile->Write();
 
  return true;
  
}
 
bool TRTCalibrator::fill(const Trk::Track* aTrack, TRT::TrackInfo* output) {
  if (aTrack==nullptr) {};
  if (output==nullptr) {};
  return true;
}