rmain.cxx File Reference

#include <cstdio>
#include <cmath>
#include <fstream>
#include <iostream>
#include <vector>
#include <map>
#include <set>
#include <sstream>
#include <execinfo.h>
#include <signal.h>
#include <unistd.h>
#include "TChain.h"
#include "TFile.h"
#include "TTree.h"
#include "TDirectory.h"
#include "TrigInDetAnalysis/Track.h"
#include "TrigInDetAnalysis/TIDAEvent.h"
#include "TrigInDetAnalysis/TrackSelector.h"
#include "TrigInDetAnalysis/TIDAVertex.h"
#include "TrigInDetAnalysisUtils/Associator_BestMatch.h"
#include "TrigInDetAnalysisUtils/Filters.h"
#include "TrigInDetAnalysisUtils/Filter_Offline2017.h"
#include "TrigInDetAnalysisExample/NtupleTrackSelector.h"
#include "TrigInDetAnalysisExample/ChainString.h"
#include "TrigInDetAnalysisUtils/Associator_TruthMatch.h"
#include "TrigInDetAnalysis/Efficiency1D.h"
#include "TrigInDetAnalysis/TIDARoiDescriptor.h"
#include "TrigInDetAnalysis/TrigObjectMatcher.h"
#include "ReadCards.h"
#include "utils.h"
#include "RoiFilter.h"
#include "ConfAnalysis.h"
#include "PurityAnalysis.h"
#include "ConfVtxAnalysis.h"
#include "TIDAReference.h"
#include "lumiList.h"
#include "lumiParser.h"
#include "dataset.h"
#include "event_selector.h"
#include "BinConfig.h"
#include "zbeam.h"
#include "computils.h"
#include "globals.h"
#include "TrigInDetAnalysisUtils/TagNProbe.h"

Go to the source code of this file.

Classes
struct	event_list

Functions
void	copyReleaseInfo (TTree *tree, TFile *foutdir)
void	handler (int sig)
	signal handler More...
std::string	time_str ()
int	atoi_check (const std::string &s)
	convert string to integer with check if successful More...
int	GetChainAuthor (std::string chainName)
	Return selected author, expects format L2_e20_medium:TrigL2SiTrackFinder:3 where 3 is the track author NB: this isn't actually needed at all. More...
TIDARoiDescriptor	makeCustomRefRoi (const TIDARoiDescriptor &roi, double etaHalfWidth=-999, double phiHalfWidth=-999, double zedHalfWidth=-999)
bool	trackPtGrtr (TIDA::Track *trackA, TIDA::Track *trackB)
template<typename T >
std::ostream &	operator<< (std::ostream &s, const std::vector< T * > &v)
template<typename T >
std::ostream &	operator<< (std::ostream &s, const std::vector< T > &v)
const std::vector< TIDA::Track >	ibl_filter (const std::vector< TIDA::Track > &tv)
const std::vector< TIDA::Track >	replaceauthor (const std::vector< TIDA::Track > &tv, int a0=5, int a1=4)
int	usage (const std::string &name, int status)
template<typename T >
std::vector< T * >	pointers (std::vector< T > &v)
bool	SelectObjectET (const TrackTrigObject &t)
bool	SelectObjectETovPT (const TrackTrigObject &tobj, TIDA::Track *t=0)
TrackFilter *	getFilter (const std::string &refname, int pdgId, TrackFilter *foff, TrackFilter *fmu, TrackFilter *ftruth)
	This is awful code, passing in lots of filter pointers just so that they can be assigned neatly ? This section of the code needs a bit of a rethink getFilter( refname, &filter_off, &filter_muon, &filter_truth ); Fixme: maybe use a switch statement or something in the future. More...
bool	GetRefTracks (const std::string &rc, const std::string &exclude, const std::vector< TIDA::Chain > &chains, NtupleTrackSelector &refTracks, TrackAssociator *ex_matcher, TrigObjectMatcher &tom)
int	main (int argc, char **argv)

Variables
bool	PRINT_BRESIDUALS
	stack trace headers More...
BinConfig	g_binConfig
BinConfig	electronBinConfig
BinConfig	muonBinConfig
BinConfig	tauBinConfig
BinConfig	bjetBinConfig
BinConfig	cosmicBinConfig
bool	debugPrintout = false
double	ETmin = 0
double	ETovPTmin = 0
	this is a swiss knife function - by default if ET/PT > 0 such that fabs(ET/PT) > 0 is always true and we can always call this function - PT can never be 0 for a particle in the detector so can use this for both ET/PT selection and raw ET selection More...

Detailed Description

Author

mark sutton

Date

Fri 11 Jan 2019 07:41:26 CET

Copyright (C) 2002-2023 CERN for the benefit of the ATLAS collaboration

Definition in file rmain.cxx.

Function Documentation

atoi_check()

int atoi_check

(

const std::string &

s

)

convert string to integer with check if successful

Definition at line 128 of file rmain.cxx.

                                     {
  int i = std::atoi( s.c_str() );
  char check[128];
  std::sprintf( check, "%d", i );
  if ( std::string(check)!=s ) return -1;
  else return i;
}

copyReleaseInfo()

void copyReleaseInfo	(	TTree *	tree,
		TFile *	foutdir
	)

GetChainAuthor()

int GetChainAuthor

(

std::string

chainName

)

Return selected author, expects format L2_e20_medium:TrigL2SiTrackFinder:3 where 3 is the track author NB: this isn't actually needed at all.

can parse the entire name properly with this technique - NB: should move to some meaningful name for strategies "A", "B", etc

chops tokens off the front, up to the ":"

Definition at line 143 of file rmain.cxx.

                                        {
 
  std::string s1 = chop(chainName,":"); 
  std::string s2 = chop(chainName,":");
  std::string s3 = chop(chainName,":");
 
  //  if only s3=="" then no third token, if s2=="", no second token etc 
  // return atoi(s3.c_str());
 
  //  std::cout << ">" << s1 << "< >" << s2 << "< >" << s3 << "<" << std::endl;
  if ( s3=="0" ) return 0;
  if ( s3=="1" ) return 1;
  if ( s3=="2" ) return 2; 
  // }
  return -1;
 
}

getFilter()

TrackFilter* getFilter	(	const std::string &	refname,
		int	pdgId,
		TrackFilter *	foff,
		TrackFilter *	fmu,
		TrackFilter *	ftruth
	)

This is awful code, passing in lots of filter pointers just so that they can be assigned neatly ? This section of the code needs a bit of a rethink getFilter( refname, &filter_off, &filter_muon, &filter_truth ); Fixme: maybe use a switch statement or something in the future.

Definition at line 403 of file rmain.cxx.

                                  {             
 
  std::cout << "getFilter(): refname " << refname << std::endl; 
 
  if      ( refname=="Offline" )                    return foff;
  else if ( refname=="InDetLargeD0TrackParticles" ) return foff;
  else if ( contains( refname, "Electrons") )       return foff;
  else if ( contains( refname, "LRTElectrons") )    return foff;
  else if ( contains( refname, "Muons"  ) )         return fmu;
  else if ( contains( refname, "MuonsLRT"  ) )      return fmu;
  else if ( contains( refname, "Taus"   ) )         return foff;  // tau ref chains
  else if ( contains( refname, "1Prong" ) )         return foff;  // tau ref chains
  else if ( contains( refname, "3Prong" ) )         return foff;  // tau ref chains
  else if ( refname=="Truth" && pdgId!=0 )          return ftruth;
  else if ( refname=="Truth" && pdgId==0 )          return foff;
  else {
    std::cerr << "unknown reference chain defined" << std::endl;
    return 0;
  }
}

GetRefTracks()

bool GetRefTracks	(	const std::string &	rc,
		const std::string &	exclude,
		const std::vector< TIDA::Chain > &	chains,
		NtupleTrackSelector &	refTracks,
		TrackAssociator *	ex_matcher,
		TrigObjectMatcher &	tom
	)

get any objects to exclude matched from the reference selection

match between the reference tracks and the objects to be excluded, and rebuild the reference tracks without the matches

if no match then add back to the standard reefrence

get objects if requested

Definition at line 428 of file rmain.cxx.

                                    { 
  
   bool foundReference = false;
 
   for ( size_t ic=chains.size() ; ic-- ;  ) { 
 
     if ( chains[ic].name()==rc ) { 
 
          foundReference = true;
 
          //Get tracks from within reference roi
 
 
      if ( exclude.empty() ) { 
        refTracks.selectTracks( chains[ic].rois()[0].tracks() );
      }
      else { 
 
        std::vector<TIDA::Track> tmptracks = chains[ic][0].tracks();
 
        for ( size_t ix=chains.size() ; ix-- ; ) {
          
          if ( chains[ix].name()==exclude ) {
        
        std::vector<TIDA::Track> extracks = chains[ix][0].tracks();
 
        std::vector<TIDA::Track*> refp;
        std::vector<TIDA::Track*> refx;
        
        for ( size_t it=tmptracks.size() ; it-- ; )  refp.push_back( &tmptracks[it] );
        for ( size_t it=extracks.size()  ; it-- ; )  refx.push_back( &extracks[it] );
 
        
        ex_matcher->match( refp, refx );
 
        std::vector<TIDA::Track*> refp_ex;
 
        for ( size_t it=refp.size() ; it-- ; ) { 
          if ( ex_matcher->matched(refp[it])==0 ) refp_ex.push_back(refp[it]);
        }
        
        refTracks.clear();
        refTracks.selectTracks( refp_ex );
 
        if ( debugPrintout ) { 
          
          std::cout << "\nexclude: " << refp.size() << "\t" << refp_ex.size() << std::endl;
          std::cout << "exclude:\n"  << extracks << std::endl;
          std::cout << "reference tracks: " << std::endl;
 
          size_t it0 = refp_ex.size();
          
          for ( size_t it=0 ; it<refp.size() && it0>0 ; it++ ) { 
            if ( refp[it]==refp_ex[it0-1] ) std::cout << it << "\t" << *refp[it] << "\t" << *refp_ex[--it0] << std::endl;
            else                    std::cout << "\n" << it << "\t" << *refp[it] << "\t----\n" << std::endl;
          }
 
        }
 
        break;
          }
 
        }
      }
 
      
      if ( chains[ic].rois()[0].objects().size()>0 ) { 
        tom = TrigObjectMatcher( &refTracks, chains[ic].rois()[0].objects(), SelectObjectETovPT );
      }
      
      break; 
     }
   }
 
   return foundReference;
 
}

handler()

void handler

(

int

sig

)

signal handler

Definition at line 98 of file rmain.cxx.

                      {
  void *array[10];
 
  // get void*'s for all entries on the stack
  size_t size = backtrace(array, 10);
 
  // print out all the frames to stderr
  std::cout << "Error: signal %d:\n" <<  sig << std::endl;
  backtrace_symbols_fd(array, size, STDERR_FILENO);
  std::exit(1);
}

ibl_filter()

const std::vector<TIDA::Track> ibl_filter

(

const std::vector< TIDA::Track > &

tv

)

Definition at line 222 of file rmain.cxx.

                                                                        { 
 
  static TH2D* h  = 0;
  static TH2D* h2 = 0;
 
  static int ic = 0;
 
 
  if ( h==0 ) { 
    h  = new TH2D( "hzvphi",  "hzvphi", 150, -300, 300, 150, -M_PI, M_PI ); 
    h2 = new TH2D( "hzvphi2", "hzvphi", 150, -300, 300, 150, -M_PI, M_PI ); 
  }
 
  for ( size_t i=tv.size() ; i-- ; ) { 
    
    if ( tv[i].author()!=5 ) break;
 
    double eta = tv[i].eta();
      
    double theta = 2*std::atan(-std::exp(eta));
 
    double ribl = 34.2; // actually 32.26 - 36.21 mm
 
    double z = tv[i].z0() + ribl/std::tan(theta);
 
    if ( !tv[i].expectBL() ) { 
      std::cout << "missing IBL: phi: " << tv[i].phi() << "\tz: " << z << " (" << eta << " " << theta*180/M_PI << ")" << std::endl; 
      if ( h ) h->Fill( z, tv[i].phi() );
    }
    else { 
      if ( h2 ) h2->Fill( z, tv[i].phi() );
    }
  }
 
  if ( ic>=500 ) { 
    ic = 0;
    if ( h ) { 
      h->DrawCopy();
      gPad->Print("zphimap.pdf");
      h2->DrawCopy();
      gPad->Print("zphimap2.pdf");
    }
  }
 
  ic++;
 
  return tv;
}

main()

int main	(	int	argc,
		char **	argv
	)

set some configuration parameters that can be set from the command line - these over-ride those from the configuration file Fixme: which is best? set them from the command line first, and then ignore them in the config file, or set from the config file, and then override them with command line arguments later? Theres only one way to find out...

get a filename from the command line if present

unknown option

true by default - command line options sets to false so should override what is in the config file

open output file

set up the filters etc

essentially no limit

essentially no limit

here we set a pTMax value less than pT, then only set the max pT in the filter if we read a pTMax value greater than pT

only if not set from the command line

only if not set from the command line

get the test chains

NB: don't override command line args

new code - can extract vtx name, pt, any extra options that we want, but also chop off everythiung after :post

now any additional config parameters for the chain are available

print soime debugging output

select only tracks within the roi?

read the (xml?) GRL

else get the list from the dat file directly

reference vertex selection

test vertex selection

option to use updated vertex matching with tracks

is this option needed any longer ???

read the binning config from a separate file if required

set the tags in front of the histogram stuff

clean up

track filters

truth articles

reminder: this is the new constructor - it now has too many parameters

filters for true selection for efficiency

include chi2 probability cut

track selectors so we can select multiple times with different filters if we want (simpler then looping over vectors each time

strings for which chains to analyse

create a map of the name to analysis string for selecting the correct analysis from the chain name

create the analyses and initialise them - this will create a root directory and book all the histograms

now we know that there is a corresponding tag, we can add the probe ...

if matching tag found then initialise tag and probe object and store tag and probe chains in there this will be passed into the ConfAnalysis, which will delete it when necessary
could perhaps be done with a unique_ptr

useful debug - leave this here ...

don't use the vertex name as the directory, since then we cannot easily plot on the same plot

hooray !! Set any additional aspects to the analysis up here so should be able to set individual, chain related variables eg set individual pt limits, different selection of reference objects, whether to run a vertex analysis ...

When setting different pt cuts, then an additional track selector will need to be created, this can then be added to the TIDA::FeatireStore of the analysis, and retrieved each time it is required

still needed for the moment ...

track selectors for efficiencies

do we want to filter the RoIs ?

Determine what sort of matching is required ...

default to deltaR matcher track matcher for best fit deltaR matcher

extra matcher for additionally matching reference to truth

default to deltaR matcher track matcher for best fit deltaR matcher

track selectors for purities

copy the release data to the output file

so we can specify the number of entries

we like, rather than run on all of them

check whether in good lumi block range

check whether it's in the event selector list

get the reference tracks (or perhaps even the true tracks !!!

I don't prefer range based for loops ...

select the reference offline vertices

always push back the vector - if required there will be only one vertex on it

calculate number of "vertex tracks"

do we really want this cut ???

get the tracks from the reference chain - shouldn't be one of the test chains, since there will be a 1-to-1 mapping but might be a useful check

get reference tracks and the revference TrigObjectMatcher if one is found in the reference chain

leave this in for the moment ...

reset the tom for this event

if expecting an Electron or a Tau and we don't have the TrigObjectMatcher then we don't have any actual offline electrons or taus so skip this event - code needs to be expanded a bit before being used ...

find the analysis for this chain - is there a matching analysis?

if no matching analysis then continue

these are the rois to process

both legs have the same reference ...

different references for each leg ...

tag leg reference ...

debug printout

get the rois and filter on them if required

trigger tracks already restricted by roi - so no roi filtering required

do we want to filter on the RoI properties? If so, if the RoI fails the cuts, then skip this roi

select the test sample (trigger) vertices

here we set the roi for the filter so we can request only those tracks inside the roi

what is all this logic doing ? It looks needlessly convoluted, and should at the very least have some proper explanation of what it is supposed to be doing

get the truth particles ...

truth_matcher match against current reference selection

which truth tracks have a matching reference track ?

remove any tracks below the pt threshold if one is specifed for the analysis

if requesting an object match, remove any tracks which correspond to an object below the object PT threshold

only bother is objects actual exists

now found all the tracks within the RoI - now if required find the the count how many of these reference tracks are on each of the offline vertices

do for all vertices now ...

select the reference offline vertices

don't add vertices with no matching tracks - remember the tracks are filtered by Roi already so some vertices may have no tracks in the Roi - ntracks set to 0 by default

NB: because ntracks = 0 by default, this second clause should always be true unless ntracks has been set to some value

AAAAAARGH!!! because you cannot cast vector<T> to const vector<const T> we first need to copy the actual elements from the const vector, to a normal vector. This is because if we take the address of elements of a const vector<T> they will by of type const T*, so we can only add them to a vector<const T*> and all our functions are using const vector<T>&, so we would need to duplicate all the functions to allow over riding with vector<T*> and vector<const T*> to get this nonsense to work

so we now use a handy wrapper function to do the conversion for us ...

run the analysis for this chain

???

Definition at line 520 of file rmain.cxx.

{
  signal( SIGABRT, handler ); 
  signal( SIGFPE,  handler ); 
  signal( SIGILL,  handler ); 
  signal( SIGSEGV, handler ); 
  signal( SIGTERM, handler ); 
 
  //  ROOT::Cintex::Cintex::Enable();
 
  if ( argc<2 ) { 
    std::cerr << "Error: no config file specified\n" << std::endl;
    return usage(argv[0], -1);
  }
 
  //  event_list elist("events.txt");
 
  
  std::cout << "$0 :: compiled " << __DATE__ << " " << __TIME__ << std::endl; 
 
 
  std::string histofilename("");
 
  std::string datafile = "";
 
  std::vector<std::string> refChains(0);
 
 std::vector<TrackFilter*> refFilters(0);
 
  TrackFilter*   refFilter = 0;
  TrackFilter* truthFilter = 0;
                               
  std::string refChain = "";
 
  int pdgId = 0;
 
  std::vector<std::string> testChains;
 
  std::string binningConfigFile = "";
 
  bool useoldrms    = true;
  bool nofit        = false;
 
  std::string vertexSelection     = "";
  std::string vertexSelection_rec = "";
 
  unsigned Nentries = 0;
 
  for ( int i=1 ; i<argc ; i++ ) { 
    if ( std::string(argv[i])=="-h" || std::string(argv[i])=="--help" ) {
      return usage(argv[0], 0);
    } 
    else if ( std::string(argv[i])=="-e" || std::string(argv[i])=="--entries" ) {
      if ( ++i>=argc ) return usage(argv[0], -1);
      Nentries = std::atoi(argv[i]);
    } 
    else if ( std::string(argv[i])=="-o" || std::string(argv[i])=="-f" || std::string(argv[i])=="--file" ) { 
      if ( ++i>=argc ) return usage(argv[0], -1);
      histofilename = argv[i];
      if ( histofilename.find(".root")==std::string::npos ) histofilename += ".root";
    }
    else if ( std::string(argv[i])=="-r" || std::string(argv[i])=="--refChain" ) { 
      if ( ++i>=argc ) return usage(argv[0], -1);
      refChain = argv[i];
 
      // Merge multiple references
      if (refChain.find("+") != string::npos){
        std::istringstream iss(refChain);
        std::string token;
        while (std::getline(iss, token, '+')){ // tokenize string based on '+' delimeter
          refChains.push_back(token);
          refFilters.push_back(0);
        }
      }
      else {         
        refChains.push_back(argv[i]); // standard single reference 
    refFilters.push_back(0);
      }
    }
    else if ( std::string(argv[i])=="--rms" )   useoldrms = false;
    else if ( std::string(argv[i])=="-n" || std::string(argv[i])=="--nofit" ) nofit = true;
    else if ( std::string(argv[i])=="-t" || std::string(argv[i])=="--testChain" ) { 
      if ( ++i>=argc ) return usage(argv[0], -1);
      testChains.push_back(argv[i]);
    }
    else if ( std::string(argv[i])=="-p" || std::string(argv[i])=="--pdgId" ) { 
      if ( ++i>=argc ) return usage(argv[0], -1);
      pdgId = atoi(argv[i]);
    }
    else if ( std::string(argv[i])=="--vr" ) { 
      if ( ++i>=argc ) return usage(argv[0], -1);
      vertexSelection = argv[i];
    }
    else if ( std::string(argv[i])=="--vt" ) { 
      if ( ++i>=argc ) return usage(argv[0], -1);
      vertexSelection_rec = argv[i];
    }
    else if ( std::string(argv[i])=="-b" || std::string(argv[i])=="--binConfig" ) { 
      if ( ++i>=argc ) return usage(argv[0], -1);
      binningConfigFile = std::string(argv[i]);
    }
    else if ( std::string(argv[i]).find('-')==0 ) { 
      std::cerr << "unknown option " << argv[i] << std::endl; 
      return usage(argv[0], -1);
    } 
    else { 
      datafile = argv[i];
    }
  }
 
 
  
  if ( datafile=="" ) { 
    std::cerr << "no config file specifed\n" << endl;
    return usage(argv[0], -1);
  }
 
  std::cout << time_str() << std::endl;
 
  ReadCards inputdata(datafile);
 
  inputdata.print();
 
  if ( useoldrms ) { 
      bool oldrms95 = true;
      inputdata.declareProperty( "OldRMS95", oldrms95 );
      std::cout << "setting Resplot old rms95 " << oldrms95 << std::endl;
      Resplot::setoldrms95( oldrms95 );
  }
  else {
    std::cout << "setting Resplot  old rms95 " << useoldrms << std::endl;
    Resplot::setoldrms95( useoldrms );
  }
 
 
  if ( nofit ) { 
    std::cout << "Not fitting resplots " << std::endl;
    Resplot::setnofit( nofit );
  }
 
 
  unsigned nfiles = 0;
  inputdata.declareProperty( "NFiles", nfiles );
 
 
  if ( histofilename=="" ){ 
    if ( inputdata.isTagDefined("outputFile") )  histofilename = inputdata.GetString("outputFile");
    else  {
      std::cerr << "Error: no output file defined\n" << std::endl;
      return usage(argv[0], -1);
    }
  }
 
  TFile foutput( histofilename.c_str(), "recreate" );
  if (!foutput.IsOpen()) {
    std::cerr << "Error: could not open output file\n" << std::endl;
    return -1;
  }
 
  TDirectory* foutdir = gDirectory; 
 
  std::cout << "writing output to " << histofilename << std::endl;
 
  TH1D* hevent = new TH1D( "event", "event", 1000, 10000, 80000 );
  Resplot* hcorr = new Resplot( "correlation", 21, -0.5, 20.5, 75, 0, 600); 
 
 
  double pT     = 1000;
  double eta    = 2.5;
  double zed    = 2000;
 
  double a0min=0.;
 
  int npix = 1;
  int nsct = 6;
  int nbl = -1;
 
  int nsiholes = 2;
  int npixholes = 20; 
  int nsctholes = 20; 
 
  bool expectBL = false;
 
  double chi2prob = 0;
 
  int npix_rec = -2; 
  int nsct_rec = -2;
 
  double pT_rec = 0;  
  double eta_rec = 5;
 
  double Rmatch = 0.1;
 
  int ntracks = 0;
 
  double massMax = 130; // default invariant mass window for Tag and Probe Analyses only  
  double massMin = 50;
 
  //bool printflag = false;  // JK removed (unused)
 
  bool rotate_testtracks = false;
 
  if ( inputdata.isTagDefined("RotateTestTracks") ) rotate_testtracks = ( inputdata.GetValue("RotateTestTracks") ? true : false );
 
  bool truthMatch = false;
 
  if ( inputdata.isTagDefined("TruthMatch") )   truthMatch = ( inputdata.GetValue("TruthMatch") ? true : false );
 
  // CK: Option to specify which ref tracks to use from ref track vector, ordered by pT
  //     User parameter is a vector of ref track vector indices
  //     e.g. specifyPtOrderedRefTracks = {0, 1, 5} will use the first leading, second leading, and sixth leading track
  std::vector<size_t> refPtOrd_indices;
  bool use_pt_ordered_ref = false;
  
  if ( inputdata.isTagDefined("UsePtOrderedRefTracks") ) {
    std::vector<double> refPtOrd_indices_tmp;
 
    use_pt_ordered_ref = true;
    refPtOrd_indices_tmp = ( inputdata.GetVector("UsePtOrderedRefTracks") );
    
    std::cout << "using PT ordered reference tracks: " << refPtOrd_indices_tmp << std::endl; 
 
    for ( size_t i=refPtOrd_indices_tmp.size(); i-- ; ) {
      refPtOrd_indices.push_back( refPtOrd_indices_tmp.at(i) );
    }
  }
 
  if ( inputdata.isTagDefined("pT") )      pT    = inputdata.GetValue("pT");
  if ( inputdata.isTagDefined("ET") )      ETmin = inputdata.GetValue("ET");
  if ( inputdata.isTagDefined("ETovPT") )  ETovPTmin = inputdata.GetValue("ETovPT");
 
  double pTMax = pT-1;
  if ( inputdata.isTagDefined("pTMax") )   pTMax = inputdata.GetValue("pTMax");
 
 
  if ( inputdata.isTagDefined("NMod") )   NMod   = inputdata.GetValue("NMod");
 
 
  if ( inputdata.isTagDefined("eta") )      eta      = inputdata.GetValue("eta");
  if ( inputdata.isTagDefined("zed") )      zed      = inputdata.GetValue("zed");
  else if ( inputdata.isTagDefined("z0") )  zed      = inputdata.GetValue("z0");
  if ( inputdata.isTagDefined("npix") )     npix     = inputdata.GetValue("npix");
  if ( inputdata.isTagDefined("nsiholes") ) nsiholes = inputdata.GetValue("nsiholes");
  if ( inputdata.isTagDefined("npixholes") ) npixholes = inputdata.GetValue("npixholes");
  if ( inputdata.isTagDefined("nsctholes") ) nsctholes = inputdata.GetValue("nsctholes");
  if ( inputdata.isTagDefined("expectBL") ) expectBL = ( inputdata.GetValue("expectBL") > 0.5 ? true : false );
  if ( inputdata.isTagDefined("nsct") )     nsct     = inputdata.GetValue("nsct");
  if ( inputdata.isTagDefined("nbl") )      nbl      = inputdata.GetValue("nbl");
  if ( inputdata.isTagDefined("chi2prob") ) chi2prob = inputdata.GetValue("chi2prob");
 
  if ( inputdata.isTagDefined("ntracks") )  ntracks  = inputdata.GetValue("ntracks")+0.5; // rounding necessary ?
 
 
  if ( inputdata.isTagDefined("chi2prob") ) chi2prob = inputdata.GetValue("chi2prob");
 
  if ( pdgId==0 && inputdata.isTagDefined("pdgId") ) pdgId = inputdata.GetValue("pdgId");
 
  if ( inputdata.isTagDefined("InvMassMax") ) massMax = inputdata.GetValue("InvMassMax");
  if ( inputdata.isTagDefined("InvMassMin") ) massMin = inputdata.GetValue("InvMassMin");
  
  if ( inputdata.isTagDefined("npix_rec") ) npix_rec = inputdata.GetValue("npix_rec");
  if ( inputdata.isTagDefined("nsct_rec") ) nsct_rec = inputdata.GetValue("nsct_rec");
 
  if ( inputdata.isTagDefined("pT_rec") )  pT_rec  = inputdata.GetValue("pT_rec");
  if ( inputdata.isTagDefined("eta_rec") ) eta_rec = inputdata.GetValue("eta_rec");
 
  if ( inputdata.isTagDefined("a0") )           a0     = inputdata.GetValue("a0");
  if ( inputdata.isTagDefined("a0min") )    a0min     = inputdata.GetValue("a0min");
 
  if ( inputdata.isTagDefined("Rmatch") )       Rmatch = inputdata.GetValue("Rmatch");
 
  std::string useMatcher = "DeltaR";
  if ( inputdata.isTagDefined("UseMatcher") ) useMatcher = inputdata.GetString("UseMatcher");  
 
 
  if ( refChain=="" ) { 
    if ( inputdata.isTagDefined("refChain") )  {
      refChain = inputdata.GetString("refChain"); 
      refChains.push_back(refChain);
      refFilters.push_back(0);
    }
    else { 
      std::cerr << "Error: no reference chain defined\n" << std::endl;
      //  return usage(argv[0], -1);
      return -1;
    }
  }
 
  std::string exclude = "";
 
  TrackAssociator* ex_matcher = 0;
 
  if ( inputdata.isTagDefined("Exclude") ) { 
    exclude    = inputdata.GetString("Exclude");
    ex_matcher = new Associator_BestDeltaRZSinThetaMatcher( "deltaRZ", 0.01, 0.01, 2 ); 
  }
 
  if (refChains.size() == 0){
    std::cerr << "Error: refChains is empty\n" <<std::endl;
    return -1;
  }
 
  if ( testChains.size()==0 ) { 
    if      ( inputdata.isTagDefined("testChains") ) testChains = inputdata.GetStringVector("testChains");
    else if ( inputdata.isTagDefined("testChain") )  testChains.push_back( inputdata.GetString("testChain") );
  }
 
 
  std::vector<ChainString> chainConfig;
 
  for ( size_t ic=0 ; ic<testChains.size() ; ic++ ) { 
    chainConfig.push_back( ChainString( testChains[ic] ) );
    testChains[ic] =  chainConfig.back().pre(); 
  }
 
 
  
 
  //if ( inputdata.isTagDefined("printflag") )  printflag = ( inputdata.GetValue("printflag") ? 1 : 0 );  // JK removed (unused)
 
  bool select_roi = true;
  
 
  // CK: use a custom filter RoI for ref tracks using refFilter?
  //     Note that if the reference chain uses a non-full-scan RoI, the custom filter RoI could be wider than the
  //     ref chain RoI
  bool      use_custom_ref_roi = false;
  const int custRefRoi_nParams = 3;
 
  double custRefRoi_params[custRefRoi_nParams] = {-999., -999., -999.};
  std::vector<std::string> custRefRoi_chainList; // Vector of chain names to apply the custom roi to
  std::set<std::string>    customRoi_chains;
 
  if ( inputdata.isTagDefined("customRefRoi_etaHalfWidth") ) custRefRoi_params[0] = inputdata.GetValue("customRefRoi_etaHalfWidth");
  if ( inputdata.isTagDefined("customRefRoi_phiHalfWidth") ) custRefRoi_params[1] = inputdata.GetValue("customRefRoi_phiHalfWidth");
  if ( inputdata.isTagDefined("customRefRoi_zedHalfWidth") ) custRefRoi_params[2] = inputdata.GetValue("customRefRoi_zedHalfWidth");
 
  if ( inputdata.isTagDefined("customRefRoi_chainList") ) custRefRoi_chainList = inputdata.GetStringVector("customRefRoi_chainList");
  
  for ( unsigned ic=0 ; ic<custRefRoi_chainList.size() ; ic++ ) customRoi_chains.insert( custRefRoi_chainList[ic] );
 
  for ( int param_idx=0 ; param_idx<custRefRoi_nParams ; param_idx++ ) {
    if ( custRefRoi_params[param_idx] != -999 ) {
      select_roi         = true; // In case select_roi is ever set to default to false
      use_custom_ref_roi = true;
    }
  }
 
  if ( use_custom_ref_roi ) {
    std::cout << "****                                              \t****" << std::endl;
    std::cout << "**** Custom RoI will be used to filter ref. tracks\t****" << std::endl;
 
    if ( custRefRoi_params[0] != -999. ) std::cout << "****    etaHalfWidth = " << custRefRoi_params[0] << "\t\t\t\t****" << std::endl;
    else                                 std::cout << "****    etaHalfWidth = value used in trigger RoI\t****" << std::endl;
      
    if ( custRefRoi_params[1] != -999. ) std::cout << "****    phiHalfWidth = " << custRefRoi_params[1] << "\t\t\t\t****" << std::endl;
    else                                 std::cout << "****    phiHalfWidth = value used in trigger RoI\t****" << std::endl;
      
    if ( custRefRoi_params[2] != -999. ) std::cout << "****    zedHalfWidth = " << custRefRoi_params[2] << "\t\t\t\t****" << std::endl;
    else                                 std::cout << "****    zedHalfWidth = value used in trigger RoI\t****" << std::endl;
      
    if ( !custRefRoi_chainList.empty()  ) {
      std::cout << "****                                                \t****" << std::endl;
      std::cout << "****    Applying custom RoI only to specified chains\t****" << std::endl;
    }
    std::cout << "****                                              \t****" << std::endl;
  }
  
  // Checking for SelectRoi after any other options that will set select_roi, to ensure that the value set
  // here will be used
  if ( inputdata.isTagDefined("SelectRoi") )  { 
    select_roi = ( inputdata.GetValue("SelectRoi")!=0 ? true : false );
  }
 
  if ( !select_roi ) { 
    std::cout << "****                                               ****" << std::endl;
    std::cout << "**** RoI filtering of reference tracks is disabled ****" << std::endl;
    std::cout << "****                                               ****" << std::endl;
  }
 
  //  bool selectfake_roi = false;  // JK removed (unused)
  //  if ( inputdata.isTagDefined("SelectFakeRoi") )  { 
  //     selectfake_roi = ( inputdata.GetValue("SelectFakeRoi")!=0 ? true : false );  // JK removed (unused)
  //  }
  
 
  std::vector<double> lumiblocks;
  lumiParser  goodrunslist;
 
 
  if ( inputdata.isTagDefined("GRL") )  { 
    std::vector<std::string> grlvector = inputdata.GetStringVector("GRL");
    std::cout << "Reading GRL from: " << grlvector << std::endl;
    for ( size_t igrl=0 ; igrl<grlvector.size() ; igrl++ ) goodrunslist.read( grlvector[igrl] );
    //    std::cout << goodrunslist << std::endl;
  }
  else if ( inputdata.isTagDefined("LumiBlocks") )  { 
    lumiblocks = inputdata.GetVector("LumiBlocks");
    
    for (unsigned int i=0 ; i<lumiblocks.size()-2 ; i+=3 ){
      goodrunslist.addRange( lumiblocks[i],  lumiblocks[i+1],  lumiblocks[i+2] );
    }
  }
  
 
  
 
  if ( vertexSelection == "" ) { 
    if ( inputdata.isTagDefined("VertexSelection") ) vertexSelection = inputdata.GetString("VertexSelection");
  }
  
  bool bestPTVtx  = false;
  bool bestPT2Vtx = false;
  int  vtxind     = -1;
  
  if ( vertexSelection!="" ) { 
    if      ( vertexSelection=="BestPT" )  bestPTVtx  = true;
    else if ( vertexSelection=="BestPT2" ) bestPT2Vtx = true;
    else vtxind = atoi_check( vertexSelection );
  }
  
  
  
  
  
  if ( vertexSelection_rec == "" ) { 
    if ( inputdata.isTagDefined("VertexSelectionRec") ) vertexSelection_rec = inputdata.GetString("VertexSelectionRec");
  }  
 
  bool bestPTVtx_rec  = false;
  bool bestPT2Vtx_rec = false;
  int  vtxind_rec     = -1;
  
  if ( vertexSelection_rec!="" ) { 
    if      ( vertexSelection_rec=="BestPT" )  bestPTVtx_rec  = true;
    else if ( vertexSelection_rec=="BestPT2" ) bestPT2Vtx_rec = true;
    else vtxind_rec = atoi_check( vertexSelection_rec ); 
  }
  
  std::cout << "vertexSelection:     " << vertexSelection << std::endl; 
  std::cout << "vertexSelection_rec: " << vertexSelection_rec << std::endl; 
 
 
#if 0
 
 
  bool useBestVertex = false;
  if ( inputdata.isTagDefined("useBestVertex") ) useBestVertex = ( inputdata.GetValue("useBestVertex") ? 1 : 0 );
 
  bool useSumPtVertex = true;
  if ( inputdata.isTagDefined("useSumPtVertex") ) useSumPtVertex = ( inputdata.GetValue("useSumPtVertex") ? 1 : 0 );
 
  int MinVertices = 1;
  if ( inputdata.isTagDefined("MinVertices") ) MinVertices = inputdata.GetValue("MinVertices");
 
 
#endif
 
  bool useVertexTracks = false;
  if ( inputdata.isTagDefined("UseVertexTracks") ) useVertexTracks = ( inputdata.GetValue("UseVertexTracks") > 0 );
  
  // option to vary default "PrimaryVertices" offline reference collection
  std::string vertex_refname = "Vertex";
  if ( inputdata.isTagDefined("VertexReference") ) vertex_refname += ":" + inputdata.GetString("VertexReference");
 
  int NVtxTrackCut = 2;
  if ( inputdata.isTagDefined("NVtxTrackCut") ) NVtxTrackCut = inputdata.GetValue("NVtxTrackCut");
 
 
  std::vector<double> event_list;
  bool event_selector_flag = false;
 
  if ( inputdata.isTagDefined("EventSelector") ) event_list = inputdata.GetVector("EventSelector");
 
  event_selector es(event_list);
 
  if ( es.size() ) event_selector_flag = true;
 
 
  std::vector<double> beamTest;
  std::vector<double> beamRef;
 
 
  bool correctBeamlineRef  = false;
  bool correctBeamlineTest = false;
 
  if ( inputdata.isTagDefined("CorrectBeamlineRef") )   correctBeamlineRef  = ( inputdata.GetValue("CorrectBeamlineRef") == 0 ? false : true );
  if ( inputdata.isTagDefined("CorrectBeamlineTest") )  correctBeamlineTest = ( inputdata.GetValue("CorrectBeamlineTest") == 0 ? false : true );
 
 
  if ( inputdata.isTagDefined("BeamTest") )     beamTest = inputdata.GetVector("BeamTest");
  else { 
    if ( inputdata.isTagDefined("BeamTestx") )  beamTest.push_back(inputdata.GetValue("BeamTestx"));
    if ( inputdata.isTagDefined("BeamTesty") )  beamTest.push_back(inputdata.GetValue("BeamTesty"));
  }
  
  
  if ( inputdata.isTagDefined("BeamRef") )      beamRef = inputdata.GetVector("BeamRef");
  else { 
    if ( inputdata.isTagDefined("BeamRefx") )   beamRef.push_back(inputdata.GetValue("BeamRefx"));
    if ( inputdata.isTagDefined("BeamRefy") )   beamRef.push_back(inputdata.GetValue("BeamRefy"));
  }
  
 
 
  if ( ( beamTest.size()!=0 && beamTest.size()!=2 && beamTest.size()!=3 ) || 
       (  beamRef.size()!=0 &&  beamRef.size()!=2 &&  beamRef.size()!=3 ) ) {
    std::cerr << "incorrectly specified beamline position" << std::endl;
    return (-1);
  }
 
  if ( beamTest.size()>0 ) correctBeamlineTest = true;
  if (  beamRef.size()>0 ) correctBeamlineRef  = true;
 
  if ( correctBeamlineRef )  std::cout << "main() correcting beamline for reference tracks" << std::endl;
  if ( correctBeamlineTest ) std::cout << "main() correcting beamline for test tracks"      << std::endl;
  
  
 
  if ( beamRef.size()>0 )  std::cout << "beamref  " << beamRef   << std::endl;
  if ( beamTest.size()>0 ) std::cout << "beamtest " << beamTest << std::endl;
 
  double a0v = 1000;
  double z0v = 2000;
 
  if ( inputdata.isTagDefined("a0v") )  a0v = inputdata.GetValue("a0v");
  if ( inputdata.isTagDefined("z0v") )  z0v = inputdata.GetValue("z0v");
 
 
  double a0vrec = 1000;
  double z0vrec = 2000;
 
  if ( inputdata.isTagDefined("a0vrec") )  a0vrec = inputdata.GetValue("a0vrec");
  if ( inputdata.isTagDefined("z0vrec") )  z0vrec = inputdata.GetValue("z0vrec");
 
  bool initialiseFirstEvent = false;
  if ( inputdata.isTagDefined("InitialiseFirstEvent") )  initialiseFirstEvent = inputdata.GetValue("InitialiseFirstEvent");
 
 
  // set the flag to prinout the missing track list in ConfAnalysis
  if ( inputdata.isTagDefined("dumpflag") )  dumpflag = ( inputdata.GetValue("dumpflag")==0 ? false : true );  
 
 
  bool doPurity = false;
  if ( inputdata.isTagDefined("doPurity") )  doPurity = ( inputdata.GetValue("doPurity")==0 ? false : true );
 
  if ( inputdata.isTagDefined("DebugPrintout") )  debugPrintout = ( inputdata.GetValue("DebugPrintout")==0 ? false : true );
 
 
  bool monitorZBeam = false;
  if ( inputdata.isTagDefined("MonitorinZBeam") )  monitorZBeam = ( inputdata.GetValue("MonitorZBeam")==0 ? false : true );
 
  std::cout << "dbg " << __LINE__ << std::endl;
 
  ReadCards* binningConfig = &inputdata;
 
 
  if ( binningConfigFile!="" ) binningConfig = new ReadCards( binningConfigFile );
    
  g_binConfig.set(       *binningConfig, "" );
  electronBinConfig.set( *binningConfig, "e_" );
  muonBinConfig.set(     *binningConfig, "mu_" );
  tauBinConfig.set(      *binningConfig, "tau_" );
  bjetBinConfig.set(     *binningConfig, "bjet_" );
  cosmicBinConfig.set(   *binningConfig, "cosmic_" );
 
 
  if ( binningConfig!=&inputdata ) delete binningConfig;
 
 
  if ( inputdata.isTagDefined("PRINT_BRESIDUALS") ) PRINT_BRESIDUALS = ( inputdata.GetValue("PRINT_BRESIDUALS")==0 ? false : true );
 
  int selectcharge = 0;
  if ( inputdata.isTagDefined("Charge") ) selectcharge = inputdata.GetValue("Charge");
 
 
  std::cout << "using reference " << refChain << std::endl;
  if ( refChain.find("Truth") != string::npos ) std::cout << "using pdgId " << pdgId << std::endl;
  if ( refChains.size() > 1 ) std::cout<<"Multiple reference chains split to: " << refChains <<std::endl;
 
 
 
  //  Filter_Track( double etaMax,  double d0Max,  double z0Max,   double  pTMin,
  //                int  minPixelHits, int minSctHits, int minSiHits, int minBlayerHits,
  //                int minStrawHits, int minTrHits, double prob=0 ) :
 
 
  std::cout << "a0v: " << a0v << std::endl;
  std::cout << "z0v: " << z0v << std::endl;
 
  Filter_Vertex filter_vertex( a0v, z0v );
 
  Filter_Track filter_offline( eta, 1000, a0min, zed, pT, 
                               npix, nsct, -1, nbl, 
                               -2, -2, chi2prob, 
                               npixholes, nsctholes, nsiholes, expectBL ); 
 
  if ( selectcharge!=0 ) filter_offline.chargeSelection( selectcharge );
  if ( pTMax>pT )        filter_offline.maxpT( pTMax );
 
  Filter_etaPT filter_etaPT(eta,pT);
 
 
  //  std::cout << "pdgId " << pdgId << std::endl;
  //Select only true particles matching pdgId
  Filter_pdgId filter_pdgtruth(pdgId); //BP
 
  // select inside-out offline tracking
 
  //  Filter_TruthParticle filter_passthrough(&filter_offline);
  //  Filter_Track filter_track( eta, 1000,  2000,     pT, npix, nsct,   -1, -1,  -2, -2);
 
  Filter_Author    filter_inout(0);
 
  int author = 0;
 
  Filter_Author    filter_auth(author);
 
  Filter_TrackQuality filter_q(0.01);  
  Filter_Combined   filter_off(&filter_offline, &filter_vertex);
 
  Filter_Combined  filter_truth( &filter_pdgtruth, &filter_etaPT);
 
  Filter_Combined  filter_muon( &filter_offline, &filter_vertex);
 
  Filter_Track      filter_onlinekine(  eta_rec, 1000, 0., 2000, pT,    -1,  npix,  nsct, -1,  -2, -2);
  Filter_Vertex     filter_onlinevertex( a0vrec, z0vrec);
  Filter_Combined   filter_online( &filter_onlinekine, &filter_onlinevertex ); 
 
  Filter_Track      filter_offkinetight(  5, 1000, 0., 2000, pT,    -1,  0,  0, -1,  -2, -2);
  Filter_Combined   filter_offtight( &filter_offkinetight, &filter_inout ); 
 
  Filter_Offline2017* filter_offline2017 = 0;
  Filter_Combined*    filter_off2017     = 0;
 
 
  if ( inputdata.isTagDefined("Filter" ) ) { 
    ChainString filter = inputdata.GetString("Filter");
    std::cout << "Filter: " << inputdata.GetString("Filter") << " : " << filter << std::endl;
    if ( filter.head()=="Offline2017" ) {
      std::string filter_type = filter.tail();
      filter_offline2017 = new Filter_Offline2017( pT, filter_type, zed, a0 ); 
      filter_off2017     = new Filter_Combined ( filter_offline2017, &filter_vertex);
      refFilter          = filter_off2017;
    }
    else { 
      std::cerr << "unimplemented Filter requested: " << filter.head() << std::endl; 
      return -1; 
    }
  }
  else { 
    if ( !(refFilter = getFilter( refChains[0], pdgId, &filter_off, &filter_muon, &filter_truth ) ) ) { 
      std::cerr << "unknown reference chain defined" << std::endl;
      return (-1);
    }
  }
 
  refFilters.push_back(refFilter);
 
 
  std::map<std::string,TIDA::Reference> ref;
 
  std::vector<NtupleTrackSelector*>  refSelectors;
  
#if 0
 
  for ( size_t ic=0 ; ic<refChains.size() ; ic++ ) { 
    
    if ( refFilter==0 ) { 
      if ( !(refFilters[ic] = getFilter( refChains[ic], pdgId, &filter_off, &filter_muon, &filter_truth ) ) ) { 
    std::cerr << "unknown reference chain defined" << std::endl;
    return (-1);
      }
      refFilter = refFilters[ic];
    }
    else refFilters[ic] = refFilter;
 
    ref.insert( TIDA::ReferenceMap::value_type( refChains[ic], TIDA::Reference( refChains[ic], new NtupleTrackSelector(refFilter), refFilter, new TrigObjectMatcher ) ) ); 
        
  }
 
# endif
 
  if (pdgId==0) truthFilter = &filter_off;
  else truthFilter = &filter_truth;
 
 
  // use an actual filter requiring at least 1 silicon hit
  // to get rid of the EF trt only tracks 
 
  std::cout << "filter_passthrough" << std::endl;
 
  Filter_Track filter_passthrough( 10, 1000, 0.,  2000, pT_rec, npix_rec, nsct_rec, 1, -2,  -2, -2);
 
  TrackFilter* testFilter = &filter_passthrough;
 
 
  std::cout << "using tracks: " << refChain  << " for reference sample" << std::endl;
 
 
  // std::vector<std::string> chains;
 
  std::vector<std::string>& test_chains = testChains;
 
  //smh: TrackAnalysis is purely abstract, analysis will contain ConfAnalysis
  std::map<std::string,TrackAnalysis*> analysis;
 
 
  std::vector<TrackAnalysis*> analyses;
  analyses.reserve(test_chains.size());
 
  std::cout << "booking " << test_chains.size() << " analyses" << std::endl;
  
  for ( unsigned  i=0 ; i<test_chains.size() ; i++ ) {
 
    std::string chainname = ChainString(test_chains[i]);
 
    std::vector<std::string> chainnames;
 
    chainnames.push_back(chainname);
 
 
    // tag and probe object creation and configuration
 
    TagNProbe* TnP_tool = 0;
    ChainString probe = chainConfig[i];
     
    std::string probe_extra = probe.extra();
           
    if ( probe_extra.empty() ) probe_extra = probe.postvalue("extra"); 
 
    if ( probe_extra.find("_tag")!=std::string::npos || probe.extra().find("_tag")!=std::string::npos ) { 
      std::cout << "rejecting tag chain " << probe << std::endl;
      continue;
    }
 
    // probe can be the .head() so convert m_chainNames to a ChainString and search the .extra() specifically                                           
    size_t p = probe_extra.find("_probe");
 
    if ( p!=std::string::npos ) {
 
      std::string probe_ref = refChains[0];
 
      if ( !probe.postvalue("ref").empty() )  { 
 
    probe_ref = probe.postvalue("ref");
 
    if ( refChains[0] != probe_ref ) { 
      std::cerr << "default and probe chain references do not match: probe ref: " << probe_ref << " ref: " << refChains[0] << std::endl;
      return -1;
    }
 
      } 
 
 
      std::string probe_key = probe_extra.erase(p, 6);
 
      for ( unsigned j=0 ; j<test_chains.size(); ++j) {
 
    if ( i==j ) continue;
 
    ChainString tag = chainConfig[j];
    
    if ( tag.head() != probe.head() ) continue;
    
    //  if ( tag.tail() != probe.tail() ) continue; // should not enforce this for mu + tau tnp chains
 
    std::string tag_extra = tag.extra();
 
    if ( tag_extra.empty() ) tag_extra = tag.postvalue("extra");
    if ( tag_extra.find("_tag")==std::string::npos ) continue;
    
    // need to compare just the 'el1' part of of .extra() so create variables without '_probe/_tag' part                                                
    std::string tag_key = tag_extra.erase( tag_extra.find("_tag"), 4) ;
 
    // tag chain must be the same as probe chain but with te=0 and extra=*_tag                                                                          
    if ( tag_key != probe_key ) continue;
 
    if ( tag.element() == probe.element() ) continue;
 
    std::string tag_ref = refChains[0];
 
 
    TrackFilter* filter = getFilter( probe_ref, pdgId, &filter_off, &filter_muon, &filter_truth );
 
    ref.insert( TIDA::ReferenceMap::value_type( probe_ref, TIDA::Reference( probe_ref, new NtupleTrackSelector(filter), filter, new TrigObjectMatcher ) ) );  
             
    if ( !tag.postvalue("ref").empty() )  { 
 
      tag_ref = tag.postvalue("ref");
      //      refChains.push_back( tag_ref);
 
      std::cout << "tag ref:   " << tag_ref << std::endl;
      
      if ( ref.find(tag_ref)==ref.end() ) { 
        TrackFilter* filter = getFilter( tag_ref, pdgId, &filter_off, &filter_muon, &filter_truth );
        // ref.insert( std::map<std::string,TIDA::Reference>::value_type( tag_ref, TIDA::Reference( tag_ref, new NtupleTrackSelector(filter) ) ) );  
        ref.insert( TIDA::ReferenceMap::value_type( tag_ref, TIDA::Reference( tag_ref, new NtupleTrackSelector(filter), filter, new TrigObjectMatcher ) ) );  
      } 
    }
 
    // TnP_tool = new TagNProbe( refChains[0], refChains[0], massMin, massMax);
    TnP_tool = new TagNProbe( tag_ref, probe_ref, massMin, massMax);
    TnP_tool->tag(tag);
    TnP_tool->probe(probe);
    std::cout <<  "Tag and probe pair found! \n\t  Tag    : " <<  tag << "\n\t  Probe  : " << probe 
          << "\n\t  tag ref: " << tag_ref 
          << "\n\tprobe ref: " << probe_ref 
          << "\n-------------------" << std::endl;
 
    //  std::cout << *TnP_tool << std::endl;
 
    break ;
      }
 
    }
    
    // Replace "/" with "_" in chain names, for Tag&Probe analysis
    if ( TnP_tool ) replace( chainname, "/", "_" );
    ConfAnalysis* analy_conf = new ConfAnalysis( chainname, chainConfig[i], TnP_tool );
 
    analy_conf->initialiseFirstEvent(initialiseFirstEvent);
    analy_conf->initialise();
    analy_conf->setprint(false);
 
    std::string vtxTool = chainConfig[i].postvalue("rvtx");
 
    if ( vtxTool!="" ) { 
      ConfVtxAnalysis* anal_confvtx = new ConfVtxAnalysis( vtxTool, (vertex_refname!="Vertex") );
      // ConfVtxAnalysis* anal_confvtx = new ConfVtxAnalysis( "vertex" );
      analy_conf->store().insert( anal_confvtx, "rvtx" );
    }
 
 
    // analy_conf->setprint(true);
 
 
 
    if ( chainConfig[i].values().size()>0 ) { 
      std::cout << "chain:: " << chainname << " : size " << chainConfig[i].values().size() << std::endl; 
      for ( unsigned ik=chainConfig[i].values().size() ; ik-- ; ) {
    std::cout << "\tchainconfig: " << ik << "\tkey " << chainConfig[i].keys()[ik] << " " << chainConfig[i].values()[ik] << std::endl; 
      }
    }
 
    //    for (unsigned int ic=0 ; ic<chainnames.size() ; ic++ )  analysis[chainnames[ic]] = analy_conf;    
 
    if ( analysis.find( chainname )==analysis.end() ) {
      analysis.insert( std::map<std::string,TrackAnalysis*>::value_type( chainname, analy_conf ) );
      analyses.push_back(analy_conf);
    }
    else {
      std::cerr << "WARNING: Duplicated chain"
    << "\n" 
    << "---------------------------------" 
    << "---------------------------------" 
    << "---------------------------------" << std::endl;
                          continue;
    }
 
    std::cout << "analysis: " << chainname << "\t" << analy_conf  
              << "\n" 
              << "---------------------------------" 
              << "---------------------------------" 
              << "---------------------------------" << std::endl;
 
    if ( doPurity ) {
      PurityAnalysis* analp = new PurityAnalysis(chainnames[0]+"-purity"); 
      std::cout << "purity " << (chainnames[0]+"-purity") << std::endl;
      analp->initialise();
      analp->setprint(false);
      // analp->setprint(true);
      analysis[chainnames[0]+"-purity"] = analp;
      analyses.push_back(analp);
    }
 
  }
 
  std::cout << "main() finished looping" << std::endl;
 
 
  bool fullyContainTracks = false;
 
  if ( inputdata.isTagDefined("FullyContainTracks") ) { 
    fullyContainTracks = ( inputdata.GetValue("FullyContainTracks")==0 ? false : true ); 
  }
 
  bool containTracksPhi = true;
 
  if ( inputdata.isTagDefined("ContainTracksPhi") ) { 
    containTracksPhi = ( inputdata.GetValue("ContainTracksPhi")==0 ? false : true ); 
  }
 
  if ( dynamic_cast<Filter_Combined*>(refFilter) ) { 
    dynamic_cast<Filter_Combined*>(refFilter)->setDebug(debugPrintout);
    dynamic_cast<Filter_Combined*>(refFilter)->containtracks(fullyContainTracks);
    dynamic_cast<Filter_Combined*>(refFilter)->containtracksPhi(containTracksPhi);
  }    
 
  NtupleTrackSelector  refTracks( refFilter );
  NtupleTrackSelector  offTracks( testFilter );
  NtupleTrackSelector testTracks( testFilter);
 
  NtupleTrackSelector truthTracks( truthFilter );
 
  //    NtupleTrackSelector  refTracks( &filter_passthrough );
  //    NtupleTrackSelector  testTracks( refFilter );
  //    NtupleTrackSelector  refTracks(  &filter_pdgtruth);
  //    NtupleTrackSelector  testTracks( &filter_off );
  //    NtupleTrackSelector testTracks(&filter_roi);
 
 
  bool filterRoi = false;
 
  double roieta       = 0;
  bool   roicomposite = false;
  size_t roimult       = 1;
  
  if ( inputdata.isTagDefined( "FilterRoi" ) ) { 
 
    filterRoi = true;
 
    std::vector<double> filter_values = inputdata.GetVector( "FilterRoi" );
 
    if ( filter_values.size()>0 ) roieta       =   filter_values[0];
    if ( filter_values.size()>1 ) roicomposite = ( filter_values[1]==0 ? false : true );
    if ( filter_values.size()>2 ) roimult      = int(filter_values[2]+0.5);
 
  }
 
  RoiFilter roiFilter( roieta, roicomposite, roimult );
 
 
  TrackAssociator* matcher = 0;
 
  if      ( useMatcher == "Sigma" )    matcher = new Associator_BestSigmaMatcher("sigma", Rmatch);
  else if ( useMatcher == "DeltaRZ" || useMatcher == "DeltaRZSinTheta" )  { 
    double deta = 0.05;
    double dphi = 0.05;
    double dzed = 25;
    if ( inputdata.isTagDefined("Matcher_deta" ) ) deta = inputdata.GetValue("Matcher_deta"); 
    if ( inputdata.isTagDefined("Matcher_dphi" ) ) dphi = inputdata.GetValue("Matcher_dphi"); 
    if ( inputdata.isTagDefined("Matcher_dzed" ) ) dzed = inputdata.GetValue("Matcher_dzed"); 
 
    if ( useMatcher == "DeltaRZ" ) matcher = new Associator_BestDeltaRZMatcher(         "deltaRZ", deta, dphi, dzed );
    else                           matcher = new Associator_BestDeltaRZSinThetaMatcher( "deltaRZ", deta, dphi, dzed );
  }
  else if ( useMatcher == "pT_2" ) { 
    double pTmatchLim_2 = 1.0;
    if ( inputdata.isTagDefined("Matcher_pTLim_2") ) pTmatchLim_2 = inputdata.GetValue("Matcher_pTLim_2");
    matcher = new Associator_SecondBestpTMatcher("SecpT", pTmatchLim_2);
  }
  else if ( useMatcher == "Truth" ) {  
    matcher = new Associator_TruthMatcher();
  }
  else { 
    matcher = new Associator_BestDeltaRMatcher("deltaR", Rmatch);
  }
  
  TrackAssociator* truth_matcher = 0;
  if ( truthMatch ) { 
    if      ( useMatcher == "Sigma" )    truth_matcher = new Associator_BestSigmaMatcher("sigma_truth", Rmatch); 
    else if ( useMatcher == "DeltaRZ" || useMatcher == "DeltaRZSinTheta" )  { 
      double deta = 0.05;
      double dphi = 0.05;
      double dzed = 25;
      if ( inputdata.isTagDefined("Matcher_deta" ) ) deta = inputdata.GetValue("Matcher_deta"); 
      if ( inputdata.isTagDefined("Matcher_dphi" ) ) dphi = inputdata.GetValue("Matcher_dphi"); 
      if ( inputdata.isTagDefined("Matcher_dzed" ) ) dzed = inputdata.GetValue("Matcher_dzed"); 
  
      if ( useMatcher == "DeltaRZ" ) truth_matcher = new Associator_BestDeltaRZMatcher(         "deltaRZ_truth", deta, dphi, dzed ); 
      else                           truth_matcher = new Associator_BestDeltaRZSinThetaMatcher( "deltaRZ_truth", deta, dphi, dzed ); 
    }
    else if ( useMatcher == "pT_2" ) { 
      double pTmatchLim_2 = 1.0;
      if ( inputdata.isTagDefined("Matcher_pTLim_2") ) pTmatchLim_2 = inputdata.GetValue("Matcher_pTLim_2");
      truth_matcher = new Associator_SecondBestpTMatcher("SecpT_truth", pTmatchLim_2);
    }
    else if ( useMatcher == "Truth" ) {  
      truth_matcher = new Associator_TruthMatcher();
    }
    else { 
      truth_matcher = new Associator_BestDeltaRMatcher("deltaR_truth", Rmatch); 
    }
  }
  
 
  // NtupleTrackSelector  roiTracks( refFilter );
 
 
 
  NtupleTrackSelector  refPurityTracks( &filter_inout );
  NtupleTrackSelector  testPurityTracks( &filter_online );
 
  // get the list of input files
 
  std::vector<std::string> filenames;
 
 
  if ( inputdata.isTagDefined("DataSets") ) {  
 
    std::cout << "fetching dataset details" << std::endl;
    std::vector<std::string> datasets = inputdata.GetStringVector("DataSets");
    for (unsigned int ids=0 ; ids<datasets.size() ; ids++ ) {
      std::cout << "\tdataset " << datasets[ids] << std::endl; 
      dataset d( datasets[ids] );
      std::vector<std::string> filenames_ = d.datafiles();
      std::cout << "\tdataset contains " << filenames_.size() << " files" << std::endl; 
      filenames.insert(filenames.end(), filenames_.begin(),filenames_.end());
    }
  }
  else if ( inputdata.isTagDefined("DataFiles") ) filenames = inputdata.GetStringVector("DataFiles");
  else {
    std::cerr << "no input data specified" << std::endl;
    return (-1);
  }
 
 
  
  //  TString* releaseMetaData = 0;
  //  data->SetBranchAddress("ReleaseMetaData",&releaseMetaData);
 
  bool show_release = true;
 
  std::vector<std::string> release_data;
 
  std::string release_data_save = "";
 
  if ( show_release ){
 
    bool first = true;
 
    for ( unsigned i=0 ; first && i<filenames.size() ; i++ ) {
    
      TFile* finput = TFile::Open( filenames[i].c_str() );
 
 
      if ( finput==0 || !finput->IsOpen() || finput->IsZombie() ) {
        std::cerr << "Error: could not open input file: " << filenames[i] << std::endl;
        exit(-1);
      }
  
      TTree*   dataTree    = (TTree*)finput->Get("dataTree");
      TString* releaseData = new TString("");
      
      if ( dataTree ) { 
        dataTree->SetBranchAddress( "ReleaseMetaData", &releaseData);
        
        for (unsigned int i=0; i<dataTree->GetEntries() ; i++ ) {
          dataTree->GetEntry(i);      
          release_data.push_back( releaseData->Data() );
          if (  release_data_save != release_data.back() ) { 
            std::cout << "main() release data: " << release_data.back() << " : " << *releaseData << std::endl;
          }
          first = false;
          release_data_save = release_data.back();
        }
      }
 
      if ( finput ) delete finput;
    }      
    
    //    for ( unsigned ird=0 ; ird<release_data.size() ; ird++ ) std::cout << "presort  " << ird << " " << release_data[ird] << std::endl;
 
    if ( !release_data.empty() ) { 
      std::sort(release_data.begin(), release_data.end());
      release_data.erase(std::unique(release_data.begin(), release_data.end()), release_data.end());
 
      //      for ( unsigned ird=0 ; ird<release_data.size() ; ird++ ) std::cout << "postsort " << ird << " " << release_data[ird] << std::endl;
    
      foutdir->cd();
      
      TTree*   dataTree    = new TTree("dataTree", "dataTree");
      TString* releaseData = new TString("");
 
      if ( dataTree ) { 
        dataTree->Branch( "ReleaseMetaData", "TString", &releaseData);
        
        for ( unsigned ird=0 ; ird<release_data.size() ; ird++ ) {  
          *releaseData = release_data[ird];
          dataTree->Fill();
        }
        
        dataTree->Write("", TObject::kOverwrite);
        delete dataTree;
      }
    }   
  
  }
 
  //  foutput.Write();
  //  foutput.Close();
  
  //  exit(0);
 
 
 
 
 
 
 
  if ( Nentries==0 && inputdata.isTagDefined("Nentries") ) { 
    Nentries = unsigned(inputdata.GetValue("Nentries"));
  }
 
  unsigned event_counter = 0;
    
  typedef std::pair<int,double> zpair; 
  std::vector<zpair>  refz;
  std::vector<zpair>  testz;
  
  std::vector<double> beamline_ref;
  std::vector<double> beamline_test;
  
  int maxtime = 0;
  int mintime = 0;
 
  std::cout << "opening files" << std::endl;
 
  bool run = true;
 
  int  pregrl_events = 0;
  int  grl_counter   = 0;
 
 
  std::cout << "starting event loop " << time_str() << std::endl;
    
 
  size_t max_files = filenames.size();
  if ( nfiles!=0 && nfiles<max_files ) max_files = nfiles;
 
  for ( size_t ifile=0 ; run && ifile<max_files; ifile++ ) { 
 
    bool newfile = true;
 
 
    TFile*  finput = TFile::Open( filenames[ifile].c_str() );
 
    if ( finput==0 || !finput->IsOpen() || finput->IsZombie() ) {
      std::cerr << "Error: could not open output file " << filenames[ifile] << std::endl;
      continue;
    }
  
    TTree* data = (TTree*)finput->Get("tree");
 
    if ( !data ) { 
      std::cerr << "Error: cannot open TTree: " << filenames[ifile] << std::endl; 
      continue; 
    }
 
    TIDA::Event* track_ev = new TIDA::Event();
 
    gevent = track_ev;
 
    data->SetBranchAddress("TIDA::Event",&track_ev);
 
    
    maxtime = track_ev->time_stamp();
    mintime = track_ev->time_stamp();
    
    unsigned cNentries = data->GetEntries();
    
    bool skip = true;
  
    for (unsigned int i=0; skip && run && i<cNentries ; i++ ) {
 
    data->GetEntry(i);
 
    r         = track_ev->run_number();
    ev        = track_ev->event_number();
    lb        = track_ev->lumi_block();
    ts        = track_ev->time_stamp();
 
    int event = track_ev->event_number();    
    //int bc    = track_ev->bunch_crossing_id();
 
 
    hipt = false;
 
 
    
    bool ingrl = goodrunslist.inRange( r, lb );
 
    pregrl_events++;
 
    if ( !ingrl ) continue;
 
    grl_counter++;
 
 
    if ( event_selector_flag && !es.in( event ) ) continue;
 
    if ( mintime>ts ) mintime = ts;
    if ( maxtime<ts ) maxtime = ts;
 
    if ( Nentries>0 && event_counter>Nentries ) { 
      run = false;
      std::cout << "breaking out " << run << std::endl;
      break;
    }
 
    event_counter++;
 
    //    if ( !elist.find(event) ) continue;
 
    //    std::cout << "run " << r << "\tevent " << event << "\tlb " << lb << std::endl;
 
    hevent->Fill( event );
 
    if ( filenames.size()<2 ) { 
      if ( (cNentries<10) || i%(cNentries/10)==0 || i%1000==0 || debugPrintout )  { 
        std::cout << "run "      << track_ev->run_number() 
                  << "\tevent "  << track_ev->event_number() 
                  << "\tlb "     << track_ev->lumi_block() 
                  << "\tchains " << track_ev->chains().size()
                  << "\ttime "   << track_ev->time_stamp();
        std::cout << "\t : processed " << i << " events so far (" << int((1000*i)/cNentries)*0.1 << "%)\t" << time_str() << std::endl;
        //   std::cerr << "\tprocessed " << i << " events so far \t" << time_str() << std::endl;
      }
    }  
    else if ( newfile ) { 
 
      int pfiles = filenames.size();
      if ( nfiles>0 ) pfiles = nfiles; 
 
 
      std::cout << "file entries=" << data->GetEntries();
 
      if ( data->GetEntries()<100 )   std::cout << " ";
      if ( data->GetEntries()<1000 )  std::cout << " ";
      if ( data->GetEntries()<10000 ) std::cout << " ";
        
      std::cout << "\t";
 
 
      std::cout << "run "      << track_ev->run_number() 
                << "\tevent "  << track_ev->event_number() 
                << "\tlb "     << track_ev->lumi_block() 
                << "\tchains " << track_ev->chains().size()
                << "\ttime "   << track_ev->time_stamp();
      
      std::cout << "\t : processed " << ifile << " files so far (" << int((1e3*ifile)/pfiles)*0.1 << "%)\t" << time_str() << std::endl;
 
      newfile = false;
    }
 
    //          if ( printflag )  std::cout << *track_ev << std::endl;   
    
    r = track_ev->run_number();
 
 
    offTracks.clear();
    refTracks.clear();
    truthTracks.clear();
    refPurityTracks.clear();
 
    for ( TIDA::ReferenceMap::iterator mit=ref.begin() ; mit!=ref.end() ; ++mit ) {
      mit->second.selector()->clear();
      dynamic_cast<Filter_Combined*>(mit->second.filter())->setRoi(0);
    }
    
    Nvtxtracks = 0;
 
    const std::vector<TIDA::Chain>& chains = track_ev->chains();
 
    dynamic_cast<Filter_Combined*>(truthFilter)->setRoi(0);
    if ( truthMatch ) { 
      for (unsigned int ic=0 ; ic<chains.size() ; ic++ ) {
        if ( chains[ic].name()=="Truth" ) {
          truthTracks.selectTracks( chains[ic][0].tracks() );
          break;
        }
      }
    }
 
    for (const std::string& rc : refChains){
      for (unsigned int ic=0 ; ic<chains.size() ; ic++ ) {
        if ( chains[ic].name()==rc ) {
          offTracks.selectTracks( chains[ic][0].tracks() );
          //extract beamline position values from rois
          beamline_ref = chains[ic][0].user();
          // std::cout << "beamline: " << chains[ic].name() << "  " << beamline_ref << std::endl;
          break;
        }
      }
    }
 
 
    std::vector<TIDA::Vertex> vertices; // keep for now as will be needed later ...
  
    const TIDA::Chain* vtxchain = track_ev->chain(vertex_refname);
 
    if ( vtxchain && vtxchain->size()>0 ) { 
 
      const std::vector<TIDA::Vertex>& mv = vtxchain->at(0).vertices();
 
      int     selectvtx = -1;
      double  selection = 0;
      
      if ( debugPrintout ) std::cout << "vertices:\n" << mv << std::endl;      
      
      if ( bestPTVtx || bestPT2Vtx )  {  
        for ( size_t iv=0 ; iv<mv.size() ; iv++ ) {
          if ( mv[iv].Ntracks()==0 ) continue;
          double selection_ = 0.0;
          TIDA::Vertex vtx_temp( mv[iv] );
          vtx_temp.selectTracks( offTracks.tracks() );
          for (unsigned itr=0; itr<vtx_temp.tracks().size(); itr++) {
            TIDA::Track* tr = vtx_temp.tracks().at(itr);
            if      ( bestPTVtx  ) selection_ += std::fabs(tr->pT());
            else if ( bestPT2Vtx ) selection_ += std::fabs(tr->pT())*std::fabs(tr->pT()); 
          }
          if( selection_>selection ) {
            selection = selection_;
            selectvtx = iv;
          }
        }
        if ( selectvtx!=-1 ) {
          vertices.push_back( mv[selectvtx] );
        }
      }
      else if ( vtxind>=0 ) {
        if ( size_t(vtxind)<mv.size() )  { 
          vertices.push_back( mv[vtxind] );
        }
      }
      else { 
        for ( size_t iv=0 ; iv<mv.size() ; iv++ ) { 
          vertices.push_back( mv[iv] );
        }
      }
      
      filter_vertex.setVertex( vertices );
 
      
      NvtxCount = 0;
      
      for ( unsigned iv=0 ; iv<mv.size() ; iv++ ) {
        int Ntracks = mv[iv].Ntracks();
        if ( Ntracks>NVtxTrackCut ) { 
          Nvtxtracks += Ntracks;
          //      vertices.push_back( mv[iv] );
          NvtxCount++;
        }
      }
    }
 
    //    filter_vertex.setVertex( vvtx ) ;
 
    hcorr->Fill( vertices.size(), Nvtxtracks ); 
 
    dynamic_cast<Filter_Combined*>(refFilter)->setRoi(0);
 
    bool foundReference = false;
 
    const TIDA::Chain* refchain = 0;
 
 
    TrigObjectMatcher tom;
 
    for ( const std::string& rc : refChains ) {
      foundReference |= GetRefTracks( rc, exclude, chains, refTracks, ex_matcher, tom );
    }
 
    //    bool skip_tnp = false;
 
    for ( TIDA::ReferenceMap::iterator mitr=ref.begin() ; mitr!=ref.end() ; ++mitr ) { 
 
      std::string refname = mitr->first;
 
      NtupleTrackSelector& selector = *dynamic_cast<NtupleTrackSelector*>( mitr->second.selector() );
 
      TrigObjectMatcher rtom;
      
      foundReference |= GetRefTracks( refname, exclude, chains, selector, ex_matcher, rtom );
 
      *mitr->second.tom() = rtom;
 
      //      if ( refname.find("Tau")!=std::string::npos || refname.find("Electron")!=std::string::npos ) {    
      //     if ( rtom.status()==0 ) skip_tnp = true; /// maybe don't use this at the moment
      //  } 
 
    }
 
 
 
    
    if ( !foundReference ) continue;
    
    if ( debugPrintout ) { 
      std::cout << "reference chain:\n" << *refchain << std::endl;
    }
 
    for ( unsigned ic=0 ; ic<track_ev->chains().size() ; ic++ ) { 
 
      TIDA::Chain& chain = track_ev->chains()[ic];
 
      //      std::cout << ic << " chain " << chain.name() << " size " << chain.size() << std::endl;
 
      std::map<std::string,TrackAnalysis*>::iterator analitr = analysis.find(chain.name());
 
 
      if ( analitr==analysis.end() ) continue;
 
      if ( debugPrintout ) {
    std::cout << "test chain:\n" << chain << std::endl;
      }
      
      ConfAnalysis* cf = dynamic_cast<ConfAnalysis*>(analitr->second);
      
      std::vector<TIDA::Roi*> rois; 
 
      // tag and probe object retreival and filling of the roi vector
      TagNProbe* TnP_tool = cf->getTnPtool();
 
      if ( TnP_tool ) {
    
    foutdir->cd();
    cf->initialiseInternal();
    // changes to output directory and books the invariant mass histograms
    TH1F* invmass     = cf->getHist_invmass();
    TH1F* invmass_obj = cf->getHist_invmassObj();
 
    std::map<std::string,TIDA::Reference>::iterator mit0=ref.find(TnP_tool->type0());
 
    TrackSelector* selector0 = mit0->second.selector();
    TrackFilter*   filter0   = mit0->second.filter();
 
    TrigObjectMatcher* rtom = mit0->second.tom();
 
    if ( TnP_tool->type0() == TnP_tool->type1() ) { 
      rois = TnP_tool->GetRois( track_ev->chains(), selector0, filter0, invmass, invmass_obj, rtom );
    }
    else { 
 
      std::map<std::string,TIDA::Reference>::iterator mit1=ref.find(TnP_tool->type1());
      
      TrackSelector* selector1 = mit1->second.selector();
      TrackFilter*   filter1   = mit1->second.filter();
      
      TrigObjectMatcher* rtom1 = mit1->second.tom();
 
#if 0
      for ( size_t ia=0 ; ia<selector1->tracks().size() ; ia++ ) {
        const TIDA::Track* track = selector1->tracks()[ia];
        std::cout << ia << "\t" << *track << std::endl; 
        std::cout       << "\t" << rtom1->object(track->id()) << std::endl; 
      } 
      
      std::cout << *TnP_tool << std::endl;
#endif
 
      rois = TnP_tool->GetRois( track_ev->chains(), selector0, filter0, selector1, filter1, invmass, invmass_obj, rtom, rtom1 );
    } 
      }
      else {
    // if not a tnp analysis then fill rois in the normal way
    rois.reserve( chain.size() );
    for ( size_t ir=0 ; ir<chain.size() ; ir++ ) rois.push_back( &(chain.rois()[ir]) );
      }
 
      if ( false )  std::cout << "++++++++++++ rois size = " << rois.size() << " +++++++++++" << std::endl;
 
      //for (unsigned int ir=0 ; ir<chain.size() ; ir++ ) { 
      for (unsigned int ir=0 ; ir<rois.size() ; ir++ ) {  // changed for tagNprobe
 
 
        //TIDA::Roi& troi = chain.rois()[ir]; 
        TIDA::Roi& troi = *rois[ir]; // changed for tagNprobe
        TIDARoiDescriptor roi( troi.roi() );
 
        testTracks.clear();
 
        testTracks.selectTracks( troi.tracks() );
        
        std::vector<TIDA::Track*> testp = testTracks.tracks();
 
 
        if ( filterRoi && !roiFilter.filter( roi ) ) continue; 
        
        const std::vector<TIDA::Vertex>& mvt = troi.vertices();
 
        std::vector<TIDA::Vertex> vertices_test;
        
        int     selectvtx = -1;
        double  selection = 0;
        
        if ( bestPTVtx_rec || bestPT2Vtx_rec )  {  
          
          // const std::vector<TIDA::Track>& recTracks = troi.tracks();
          
          for ( unsigned iv=0 ; iv<mvt.size() ; iv++ ) {
            double selection_ = 0.0;
            TIDA::Vertex vtx_temp( mvt[iv] );
            vtx_temp.selectTracks( testp );
            for (unsigned itr=0; itr<vtx_temp.tracks().size(); itr++) {
            TIDA::Track* tr = vtx_temp.tracks().at(itr);
            if      ( bestPTVtx  ) selection_ += std::fabs(tr->pT());
            else if ( bestPT2Vtx ) selection_ += std::fabs(tr->pT())*std::fabs(tr->pT()); 
            }
            if( selection_>selection){
              selection = selection_;
              selectvtx = iv;
            }
          }
          if ( selectvtx!=-1 ) {
            TIDA::Vertex selected( mvt[selectvtx] );
            if ( useVertexTracks ) selected.selectTracks( testp );
            vertices_test.push_back(selected);
          }
        }
        else if ( vtxind_rec!=-1 ) {
          if ( unsigned(vtxind_rec)<mvt.size() ) { 
            TIDA::Vertex selected( mvt[vtxind] );
            if ( useVertexTracks ) selected.selectTracks( testp );
            vertices_test.push_back( selected );
          }
        }
        else {  
          for ( unsigned iv=0 ; iv<mvt.size() ; iv++ ) {
            TIDA::Vertex selected( mvt[iv] );
            if ( useVertexTracks ) selected.selectTracks( testp );
            vertices_test.push_back( selected );
          }
        }
        
        //extract beamline position values from rois
    beamline_test = rois[ir]->user(); // changed for tagNprobe
        
        //set values of track analysis to these so can access elsewhere
        for ( size_t i=analyses.size() ; i-- ; ) {
 
          TrackAnalysis* analy_track = analyses[i];
          
          if ( correctBeamlineTest ) { 
            if      ( beamTest.size()==2 ) analy_track->setBeamTest( beamTest[0], beamTest[1] );
            //      else if ( beamTest.size()==3 ) analy_track->setBeamTest( beamTest[0], beamTest[1], beamTest[2] );
            else { 
              if ( !inputdata.isTagDefined("BeamTest") ) {
                if      ( beamline_test.size()==2 ) analy_track->setBeamTest( beamline_test[0], beamline_test[1] );
                //              else if ( beamline_test.size()==3 ) analy_track->setBeamTest( beamline_test[0], beamline_test[1], beamline_test[2] );
              }
            }
          }
          
          if ( correctBeamlineRef ) { 
            if      ( beamRef.size()==2 ) analy_track->setBeamRef( beamRef[0], beamRef[1] );
            //      else if ( beamRef.size()==3 ) analy_track->setBeamRef( beamRef[0], beamRef[1], beamRef[2] );
            else { 
              if ( !inputdata.isTagDefined("BeamRef") ) { 
                if      ( beamline_ref.size()==2 ) analy_track->setBeamRef( beamline_ref[0], beamline_ref[1] );
                //              else if ( beamline_ref.size()==3 ) analy_track->setBeamRef( beamline_ref[0], beamline_ref[1], beamline_ref[2] );
              }
            }
          }
          
        }
        
 
        TIDARoiDescriptor refRoi;
        
        if ( select_roi ) {
 
 
          bool customRefRoi_thisChain = false;
 
          if ( use_custom_ref_roi ) { // Ideally just want to say ( use_custom_ref_roi && (chain.name() in custRefRoi_chain]sist) )
            if ( customRoi_chains.size() ) { 
              if ( customRoi_chains.find( chain.name() )!=customRoi_chains.end() ) customRefRoi_thisChain = true;
            }
            else customRefRoi_thisChain = true;  // Apply custom ref roi to all chains
          }
          
          if ( use_custom_ref_roi && customRefRoi_thisChain ) { 
            refRoi = makeCustomRefRoi( roi, custRefRoi_params[0], custRefRoi_params[1], custRefRoi_params[2] ); 
          }
          else refRoi = roi;
      
          dynamic_cast<Filter_Combined*>(refFilter)->setRoi(&refRoi);
        }
        
        //      if ( debugPrintout ) { 
        //        std::cout << "refTracks.size() " << refTracks.size() << " before roi filtering" << std::endl; 
        //        std::cout << "filter with roi " << roi << std::endl; 
        //      }
 
        
        // Now filterng ref tracks by refFilter, and performing any further filtering and selecting,
        // before finally creating the const reference object refp
 
        std::vector<TIDA::Track*>  refp_vec = refTracks.tracks( refFilter );
        
        // Selecting only truth matched reference tracks
        if ( truthMatch ) {       
          if ( select_roi ) dynamic_cast<Filter_Combined*>(truthFilter)->setRoi(&roi);
          const std::vector<TIDA::Track*>&  truth = truthTracks.tracks(truthFilter);
          const std::vector<TIDA::Track*>&  refp_tmp = refp_vec;
 
          truth_matcher->match( refp_tmp, truth );
 
          std::vector<TIDA::Track*>  refp_matched;
 
          for ( unsigned i=0 ; i<refp_vec.size() ; i++ ) { 
            if ( truth_matcher->matched( refp_vec[i] ) ) refp_matched.push_back( refp_vec[i] );
          }
 
          refp_vec.clear();
          refp_vec = refp_matched;
        }
        
        // Choose the pT ordered refp tracks that have been asked for by the user
        if ( use_pt_ordered_ref ) {
          std::sort( refp_vec.begin(), refp_vec.end(), trackPtGrtr ); // Should this sorting be done to a temporary copied object, instead of the object itself?
          
          size_t nRefTracks = refp_vec.size();
 
          std::vector<TIDA::Track*> refp_chosenPtOrd;
 
      if ( debugPrintout ) { 
        // Checking if any user specifed track indices are out of bounds for this event
        for ( size_t sidx=refPtOrd_indices.size() ; sidx-- ; ) {
          if ( refPtOrd_indices.at(sidx)>nRefTracks ) {
        std::cout << "WARNING: for event " << event 
              << ", pT ordered reference track at vector position " << refPtOrd_indices.at(sidx) 
              << " requested but not found" << std::endl;
        break;
          }
        }
      }
          
      for ( size_t sidx=refPtOrd_indices.size() ; sidx-- ; ) {
        for ( size_t idx=0 ; idx<refp_vec.size() ; idx++  ) {
              if ( idx == refPtOrd_indices.at(sidx) ) {
                refp_chosenPtOrd.push_back(refp_vec.at(idx));
                break;
              }
            }
          }
 
          refp_vec.clear();
          refp_vec = refp_chosenPtOrd; // Note: not necessarily pT ordered.
                                             //       Ordered by order of indices the user has passed
                                             //       (which is ideally pT ordered e.g. 0, 1, 3)
        }
 
 
 
        if ( cf ) { 
          std::string ptconfig = cf->config().postvalue("pt");
          if ( ptconfig!="" ) { 
            double pt = std::atof( ptconfig.c_str() );
            if ( pt>0 ) { 
              std::vector<TIDA::Track*> reft; reft.reserve(refp_vec.size());
              for ( std::vector<TIDA::Track*>::const_iterator itr=refp_vec.begin() ; itr!=refp_vec.end() ; ++itr ) { 
                if ( std::fabs((*itr)->pT())>=pt ) reft.push_back( *itr );
              }
              refp_vec = reft;
            }
          }
        }    
        
 
 
        if ( tom.status() ) {  
        
          std::string objectET = cf->config().postvalue("ET");
 
          if ( objectET != "" ) {  
            
            double ETconfig = std::atof( objectET.c_str() );
            
            if ( ETconfig>0 ) {
 
              std::vector<TIDA::Track*>::iterator itr=refp_vec.begin() ; 
 
              while (  itr!=refp_vec.end() ) { 
                const TrackTrigObject* tobj = tom.object( (*itr)->id() );
 
                if ( tobj==0 || tobj->pt()<ETconfig ) 
          itr=refp_vec.erase( itr );
                else 
          ++itr;
              }
            }
          }
        }
 
        const std::vector<TIDA::Track*>&  refp  =  refp_vec;
 
    //      if ( debugPrintout ) { 
        //        std::cout << "refp.size() " << refp.size() << " after roi filtering" << std::endl; 
        //      }           
 
 
        //      std::cout << "ref tracks refp.size() "    << refp.size() << "\n" << refp  << std::endl;
        //      std::cout << "test tracks testp.size() " << testp.size() << "\n" << testp << std::endl;
 
        groi = &roi;
 
 
        // new vertex class containing tracks, offline
        std::vector<TIDA::Vertex> vertices_roi;
 
        //        if ( chain.name().find("SuperRoi") ) { 
        {          
 
          
          vertices_roi.clear();
          
          const std::vector<TIDA::Vertex>& mv = vertices;
            
          //      std::cout << "vertex filtering " << mv.size() << std::endl;
 
 
          for ( unsigned iv=0 ; iv<mv.size() ; iv++ ) {
 
            const TIDA::Vertex& vx = mv[iv];
 
            // reject all vertices that are not in the roi
 
            bool accept_vertex = false;
            if ( roi.composite() ) { 
              for ( size_t ir=0 ; ir<roi.size() ; ir++ ) { 
                if ( roi[ir]->zedMinus()<=vx.z() && roi[ir]->zedPlus()>=vx.z() ) accept_vertex = true;  
              }
            }
            else { 
              if ( roi.zedMinus()<=vx.z() && roi.zedPlus()>=vx.z() ) accept_vertex = true;  
            }
 
            if ( !accept_vertex ) continue;
      
            //      std::cout << "\t" << iv << "\t" << vx << std::endl;
 
            int trackcount = 0;
 
            if ( useVertexTracks ) {
              // refp contains roi filtered tracks, vx contains ids of tracks belonging to vertex
              TIDA::Vertex vertex_roi( vx );
              vertex_roi.selectTracks( refp );
              trackcount = vertex_roi.Ntracks();
              if ( trackcount>=ntracks && trackcount>0 ) {
                vertices_roi.push_back( vertex_roi );
              }
            }
            else {
              // old track count method still in use?
              for (unsigned itr=0; itr<refp.size(); itr++){
                TIDA::Track* tr = refp[itr];
                double theta_     = 2*std::atan(std::exp(-tr->eta())); 
                double dzsintheta = std::fabs( (vx.z()-tr->z0()) * std::sin(theta_) );
                if( dzsintheta < 1.5 ) trackcount++;
              }        
              if ( trackcount>=ntracks && trackcount>0 ) {
                const TIDA::Vertex& vertex_roi( vx ); 
                vertices_roi.push_back( vertex_roi );
              }
            }
 
          }
        }
        // else vertices_roi = vertices;
  
        if ( rotate_testtracks ) for ( size_t i=testp.size() ; i-- ; ) testp[i]->rotate();
  
        foutdir->cd();
 
        // do analysing
        
        if ( monitorZBeam ) { 
          if ( beamline_ref.size()>2 && beamline_test.size()>2 ) { 
            refz.push_back(  zpair( lb, beamline_ref[2]) );
            testz.push_back( zpair( lb, beamline_test[2]) );
          }
        }
 
        matcher->match( refp, testp);
       
        if ( tom.status() ) analitr->second->execute( refp, testp, matcher, &tom );
        else                analitr->second->execute( refp, testp, matcher );
 
        ConfVtxAnalysis* vtxanal = 0;
        analitr->second->store().find( vtxanal, "rvtx" );
 
        if ( vtxanal && ( refp.size() >= size_t(ntracks) ) ) {    
 
 
 
          if ( vertices_roi.size()>0 ) vtxanal->execute( pointers(vertices_roi), pointers(vertices_test), track_ev );
 
        }
 
        
        if ( debugPrintout ) { 
          //    std::cout << "-----------------------------------\n\nselected tracks:" << chain.name() << std::endl;
          std::cout << "\nselected tracks:" << chain.name() << std::endl;
          std::cout << "ref tracks refp.size() "    << refp.size() << "\n" << refp  << std::endl;
          std::cout << "test tracks testp.size() " << testp.size() << "\n" << testp << std::endl;
          
          TrackAssociator::map_type::const_iterator titr = matcher->TrackAssociator::matched().begin();
          TrackAssociator::map_type::const_iterator tend = matcher->TrackAssociator::matched().end();
          int im=0;
          std::cout << "track matches:\n";
          while (titr!=tend) { 
            std::cout << "\t" << im++ << "\t" << *titr->first << " ->\n\t\t" << *titr->second << std::endl;
            ++titr;
          }
          
          
          std::cout << "completed : " << chain.name() << "\n";
          std::cout << "-----------------------------------" << std::endl;
          
        }
        
#if 0
        if ( _matcher->size()<refp.size() ) { 
          
          if ( refp.size()==1 && testp.size()==0 ) { 
            std::cout << track_ev->chains()[ic] <<std::endl;
            std::cout << "roi\n" << track_ev->chains()[ic].rois()[ir] << endl; 
          }
 
        }
#endif
 
 
        if ( doPurity ) { 
          
          const std::vector<TIDA::Track*>&  refpp = refPurityTracks.tracks( refFilter );
 
          testPurityTracks.clear();
 
          testPurityTracks.selectTracks( troi.tracks() );
          std::vector<TIDA::Track*> testpp = testPurityTracks.tracks();
 
          matcher->match(refpp, testpp); 
            
 
          std::map<std::string,TrackAnalysis*>::iterator analitrp = analysis.find(chain.name()+"-purity");
          
          if ( analitrp == analysis.end() ) continue;
 
 
          analitrp->second->execute( refpp, testpp, matcher );
          
 
         
        }
 
      } // loop through rois
      
    } // loop through chanines - this block is indented incorrectly
 
    } // loop through nentries
 
    delete track_ev;
    delete data;
    delete finput;
 
    //  std::cout << "run: " << run << std::endl;
    
  }// loop through files
 
  std::cout << "done " << time_str() << "\tprocessed " << event_counter << " events"
            << "\ttimes "  << mintime << " " << maxtime 
            << "\t( grl: " << grl_counter << " / " << pregrl_events << " )" << std::endl;
 
  if ( monitorZBeam ) zbeam zb( refz, testz );
 
  foutdir->cd();
  
  //  hcorr->Finalise(Resplot::FitPoisson);
 
  hcorr->Finalise(Resplot::FitNull95); 
  hcorr->Write();
 
  for ( int i=analyses.size() ; i-- ; ) { 
    // std::cout << "finalise analysis chain " << analyses[i]->name() << std::endl;
    analyses[i]->finalise();
    
    ConfVtxAnalysis* vtxanal = 0;
    analyses[i]->store().find( vtxanal, "rvtx" );
    if ( vtxanal ) vtxanal->finalise();
    
    delete analyses[i];
  }
 
  foutput.Write();
  foutput.Close();
 
 
  //  for ( std::map<std::string,TIDA::Reference>::iterator mit=ref.begin() ; mit!=ref.end() ; ++mit++ ) { 
  for ( TIDA::ReferenceMap::iterator mit=ref.begin() ; mit!=ref.end() ; ++mit++ ) { 
    mit->second.Clean();
  }
    
 
  if ( ex_matcher ) delete ex_matcher;
 
  std::cout << "done" << std::endl;
 
  return 0;
}

makeCustomRefRoi()

TIDARoiDescriptor makeCustomRefRoi	(	const TIDARoiDescriptor &	roi,
		double	etaHalfWidth = -999,
		double	phiHalfWidth = -999,
		double	zedHalfWidth = -999
	)

Definition at line 164 of file rmain.cxx.

                                                               { 
                                    
  double roi_eta = roi.eta();
  double roi_phi = roi.phi();
  double roi_zed = roi.zed();
  
  double etaMinus = roi.etaMinus();
  double etaPlus  = roi.etaPlus();
 
  double zedMinus = roi.zedMinus();
  double zedPlus  = roi.zedPlus();
 
  double phiMinus = roi.phiMinus();
  double phiPlus  = roi.phiPlus();
 
  if ( etaHalfWidth != -999 ) { 
    etaMinus = roi_eta - etaHalfWidth;
    etaPlus  = roi_eta + etaHalfWidth;
  }
 
  if ( phiHalfWidth != -999 ) { 
    phiMinus = roi_phi - phiHalfWidth; // !!! careful! will this always wrap correctly?
    phiPlus  = roi_phi + phiHalfWidth; // !!! careful! will this always wrap correctly?
  }
   
  if ( zedHalfWidth != -999 ) { 
    zedMinus = roi_zed - zedHalfWidth;
    zedPlus  = roi_zed + zedHalfWidth;
  }
 
  return TIDARoiDescriptor( roi_eta, etaMinus, etaPlus,
                            roi_phi, phiMinus, phiPlus, // do wrap phi here (done within TIDARoiDescriptor already)                        
                            roi_zed, zedMinus, zedPlus );
}

operator<<() [1/2]

template<typename T >

std::ostream& operator<<	(	std::ostream &	s,
		const std::vector< T * > &	v
	)

Definition at line 208 of file rmain.cxx.

                                                                { 
  for ( size_t i=0 ; i<v.size() ; i++ ) s << "\t" << *v[i] << "\n";
  return s;
}

operator<<() [2/2]

template<typename T >

std::ostream& operator<<	(	std::ostream &	s,
		const std::vector< T > &	v
	)

Definition at line 215 of file rmain.cxx.

                                                              {
  if ( v.size()<5 ) for ( unsigned i=0 ; i<v.size() ; i++ ) s << "\t" << v[i];
  else              for ( unsigned i=0 ; i<v.size() ; i++ ) s << "\n\t" << v[i];
  return s;
}

pointers()

template<typename T >

std::vector<T*> pointers

(

std::vector< T > &

v

)

this is slow - all this copying

Definition at line 366 of file rmain.cxx.

                                          {
  std::vector<T*> vp(v.size(),0);
  for ( unsigned i=v.size() ; i-- ; ) vp[i] = &v[i];
  return vp;
}

replaceauthor()

const std::vector<TIDA::Track> replaceauthor	(	const std::vector< TIDA::Track > &	tv,
		int	a0 = 5,
		int	a1 = 4
	)

Definition at line 272 of file rmain.cxx.

                                                                                               { 
 
  if ( a0==a1 ) return tv;
 
  std::vector<TIDA::Track> tr;
  tr.reserve(tv.size());
  
  for ( size_t i=0 ; i<tv.size() ; i++ ) {
    const TIDA::Track& t = tv[i];
    int a = t.author();
    if ( a==a0 ) a=a1;
    tr.push_back( TIDA::Track( t.eta(),   t.phi(),  t.z0(),  t.a0(),  t.pT(),  t.chi2(), t.dof(), 
                               t.deta(),  t.dphi(), t.dz0(), t.da0(), t.dpT(),
                               t.bLayerHits(), t.pixelHits(), t.sctHits(), t.siHits(), 
                               t.strawHits(),  t.trHits(), 
                               t.hitPattern(), t.multiPattern(), a, t.hasTruth(),
                               t.barcode(), t.match_barcode(), t.expectBL(), t.id() ) );
 
  }
 
  return tr;
 
}

SelectObjectET()

bool SelectObjectET

(

const TrackTrigObject &

t

)

Definition at line 376 of file rmain.cxx.

{ return std::fabs(t.pt())>ETmin; }

SelectObjectETovPT()

bool SelectObjectETovPT	(	const TrackTrigObject &	tobj,
		TIDA::Track *	t = 0
	)

Definition at line 387 of file rmain.cxx.

                                                                     {
  bool ETselection = std::fabs(tobj.pt())>=ETmin;
  bool ETovPTselection = true;
  if ( t ) ETovPTselection = std::fabs(tobj.pt()/t->pT())>=ETovPTmin;
  return ETselection&ETovPTselection;
}

time_str()

std::string time_str

(

)

Definition at line 115 of file rmain.cxx.

                     { 
  time_t t;
  time(&t);
  std::string s(ctime(&t));
  //  std::string::size_type pos = s.find("\n");
  // if ( pos != std::string::npos ) 
  return s.substr(0,s.find('\n'));
  //  return s;
}

trackPtGrtr()

bool trackPtGrtr	(	TIDA::Track *	trackA,
		TIDA::Track *	trackB
	)

Definition at line 204 of file rmain.cxx.

{ return ( std::fabs(trackA->pT()) > std::fabs(trackB->pT()) ); }

usage()

int usage	(	const std::string &	name,
		int	status
	)

Definition at line 331 of file rmain.cxx.

                                             { 
  std::ostream& s = std::cout;
  
  s << "Usage: " << name << " <config filename> [OPTIONS]" << std::endl;
  s << "\nOptions: \n";
  s << " -o, -f, --file      value\toutput filename, \n";
  s << "     -b, --binConfig value\tconfig file for histogram configuration, \n";
  s << "     -r, --refChain  value\treference chain.  + separated keys will be merged, \n";
  s << "     -t, --testChain value\ttest chain, \n";
  s << "     -p, --pdgId     value\tpdg ID of truth particle if requiring truth particle processing,\n";
  s << "         --vt        value\tuse value as the test vertex selector - overrides value in the config file,\n";
  s << "         --vr        value\tuse value as the reference vertex selector - overrides value in the config file,\n";
  s << "     -n, --nofit          \ttest do not fit resplots, \n";
  s << "         --rms            \ttest force new rms95 errors, \n";
  s << "     -e, --entries   value\ttest only run over value entries, \n";
  //  s << "    -a, --all     \tadd all grids (default)\n";
  s << "     -h, --help           \tthis help\n";
  //  s << "\nSee " << PACKAGE_URL << " for more details\n"; 
  s << "\nReport bugs to sutt@cern.ch";
  s << std::endl;
  
  return status;
}

Variable Documentation

bjetBinConfig

BinConfig bjetBinConfig

cosmicBinConfig

BinConfig cosmicBinConfig

debugPrintout

bool debugPrintout = false

Definition at line 94 of file rmain.cxx.

electronBinConfig

BinConfig electronBinConfig

ETmin

double ETmin = 0

Definition at line 374 of file rmain.cxx.

ETovPTmin

double ETovPTmin = 0

this is a swiss knife function - by default if ET/PT > 0 such that fabs(ET/PT) > 0 is always true and we can always call this function - PT can never be 0 for a particle in the detector so can use this for both ET/PT selection and raw ET selection

Definition at line 385 of file rmain.cxx.

g_binConfig

BinConfig g_binConfig

muonBinConfig

BinConfig muonBinConfig

PRINT_BRESIDUALS

bool PRINT_BRESIDUALS

stack trace headers

globals for communicating with *Analyses TagNProbe class

Definition at line 29 of file ConfAnalysis.cxx.

tauBinConfig

BinConfig tauBinConfig