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 // use #include "" only for your local include and put
 // those in the first line(s) before any #include <>
 // otherwise you are asking for weird behavior
 // (more info - check the difference in include path search when using "" versus <>)
 
 #include "HcalMon.h"
 
 #include <onlmon/OnlMon.h>  // for OnlMon
 #include <onlmon/OnlMonDB.h>
 #include <onlmon/OnlMonServer.h>
 #include <onlmon/pseudoRunningMean.h>
 #include <onlmon/triggerEnum.h>
 
 #include <calobase/TowerInfoDefs.h>
 #include <caloreco/CaloWaveformFitting.h>
 
 #include <Event/Event.h>
 #include <Event/eventReceiverClient.h>
 #include <Event/msg_profile.h>
 
 #include <TH1.h>
 #include <TH2.h>
 #include <TProfile.h>
 #include <TProfile2D.h>
 
 #include <cmath>
 #include <cstdio>  // for printf
 #include <fstream>
 #include <iostream>
 #include <sstream>
 #include <string>  // for allocator, string, char_traits
 
 enum
 {
   TRGMESSAGE = 1,
   FILLMESSAGE = 2
 };
 
 HcalMon::HcalMon(const std::string& name)
   : OnlMon(name)
 {
   // leave ctor fairly empty, its hard to debug if code crashes already
   // during a new HcalMon()
   // if name start with O then packetlow = 8001, packethigh = 8008
   // if name start with I then packetlow = 7001, packethigh = 7008
   if (name[0] == 'O')
   {
     packetlow = 8001;
     packethigh = 8008;
   }
   else if (name[0] == 'I')
   {
     packetlow = 7001;
     packethigh = 7008;
   }
   else
   {
     std::cout << "HcalMon::HcalMon - unknown name(need to be OHCALMON or IHCALMON to know what packet to run) " << name << std::endl;
     exit(1);
   }
   return;
 }
 
 HcalMon::~HcalMon()
 {
   // you can delete NULL pointers it results in a NOOP (No Operation)
   delete WaveformProcessing;
   for (auto iter : rm_vector_sectAvg)
   {
     delete iter;
   }
   for (auto iter : rm_vector_twr)
   {
     delete iter;
   }
   for (auto iter : rm_packet_number)
   {
     delete iter;
   }
   for (auto iter : rm_packet_length)
   {
     delete iter;
   }
   for (auto iter : rm_packet_chans)
   {
     delete iter;
   }
   for (auto iter : rm_vector_twrTime)
   {
     delete iter;
   }
   for (auto iter : rm_vector_twrhit)
   {
     delete iter;
   }
   for (auto iter : rm_vector_twrhit_alltrig)
   {
     delete iter;
   }
 
   if (erc)
   {
     delete erc;
   }
 
   return;
 }
 
 const int depth = 200000;
 const int packet_depth = 1000;
 const int historyLength = 100;
 const int historyScaleDown = 100;
 // const int n_channel = 48;
 float hit_threshold = 30;
 float waveform_hit_threshold = 100;
 const int n_samples_show = 31;
 
 int HcalMon::Init()
 {
   // read our calibrations from HcalMonData.dat
   /*
 
   const char *hcalcalib = getenv("HCALCALIB");
   if (!hcalcalib)
   {
     std::cout << "HCALCALIB environment variable not set" << std::endl;
     exit(1);
   }
   std::string fullfile = std::string(hcalcalib) + "/" + "HcalMonData.dat";
   std::ifstream calib(fullfile);
   calib.close();
   */
   // use printf for stuff which should go the screen but not into the message
   // system (all couts are redirected)
   printf("doing the Init\n");
 
   for (int itrig = 0; itrig < 64; itrig++)
   {
     h2_hcal_hits_trig[itrig] = new TH2F(Form("h2_hcal_hits_trig_%d", itrig), "", 24, 0, 24, 64, 0, 64);
   }
 
   pr_zsFrac_etaphi = new TProfile2D("pr_zsFrac_etaphi", "", 24, 0, 24, 64, 0, 64);
   pr_zsFrac_etaphi_all = new TProfile2D("pr_zsFrac_etaphi_all", "", 24, 0, 24, 64, 0, 64);
   h_hcal_trig = new TH1F("h_hcal_trig", "", 64, 0, 64);
   h2_hcal_rm = new TH2F("h2_hcal_rm", "", 24, 0, 24, 64, 0, 64);
   h2_hcal_rm_alltrig = new TH2F("h2_hcal_rm_alltrig", "", 24, 0, 24, 64, 0, 64);
   h2_hcal_mean = new TH2F("h2_hcal_mean", "", 24, 0, 24, 64, 0, 64);
   h2_hcal_time = new TH2F("h2_hcal_time", "", 24, 0, 24, 64, 0, 64);
   h2_hcal_hits = new TH2F("h2_hcal_hits", "", 24, 0, 24, 64, 0, 64);
   h2_hcal_waveform = new TH2F("h2_hcal_waveform", "", n_samples_show, 0.5, n_samples_show + 0.5, 1000, 0, 15000);
   h2_hcal_correlation = new TH2F("h2_hcal_correlation", "", 200, 0, 100000, 200, 0, 150000);
   h_event = new TH1F("h_event", "", 1, 0, 1);
   h_waveform_twrAvg = new TH1F("h_waveform_twrAvg", "", n_samples_show, 0.5, n_samples_show + 0.5);
   h_waveform_time = new TH1F("h_waveform_time", "", n_samples_show, 0.5, n_samples_show + 0.5);
   h_waveform_pedestal = new TH1F("h_waveform_pedestal", "", 5e3, 0, 5e3);
   h_sectorAvg_total = new TH1F("h_sectorAvg_total", "", 32, 0.5, 32.5);
   // number of towers above threshold per event
   h_ntower = new TH1F("h_ntower", "", 100, 0, 800);
   // packet stuff
   h1_packet_number = new TH1F("h1_packet_number", "", 8, packetlow - 0.5, packethigh + 0.5);
   h1_packet_length = new TH1F("h1_packet_length", "", 8, packetlow - 0.5, packethigh + 0.5);
   h1_packet_chans = new TH1F("h1_packet_chans", "", 8, packetlow - 0.5, packethigh + 0.5);
   h1_packet_event = new TH1F("h1_packet_event", "", 8, packetlow - 0.5, packethigh + 0.5);
   h_caloPack_gl1_clock_diff = new TH2F("h_caloPack_gl1_clock_diff", "", 8, packetlow - 0.5, packethigh + 0.5, 65536, 0, 65536);
   h_evtRec = new TProfile("h_evtRec", "", 1, 0, 1);
 
   p2_pre_post = new TProfile2D("p2_pre_post", "", 24, 0, 24, 64, 0, 64, "S");
 
   for (int ih = 0; ih < Nsector; ih++)
   {
     h_rm_sectorAvg[ih] = new TH1F(Form("h_rm_sectorAvg_s%d", ih), "", historyLength, 0, historyLength * historyScaleDown);
   }
   for (int ieta = 0; ieta < 24; ieta++)
   {
     for (int iphi = 0; iphi < 64; iphi++)
     {
       h_rm_tower[ieta][iphi] = new TH1F(Form("h_rm_tower_%d_%d", ieta, iphi), Form("multiplicity running mean of tower ieta=%d, iphi=%d", ieta, iphi), historyLength, 0, historyLength * historyScaleDown);
     }
   }
   // make the per-packet running mean objects
   // 32 packets and 48 channels for hcal detectors
   for (int i = 0; i < Nsector; i++)
   {
     rm_vector_sectAvg.push_back(new pseudoRunningMean(1, depth));
   }
   for (int i = 0; i < Ntower; i++)
   {
     rm_vector_twr.push_back(new pseudoRunningMean(1, depth));
     rm_vector_twrTime.push_back(new pseudoRunningMean(1, depth));
     rm_vector_twrhit.push_back(new pseudoRunningMean(1, depth));
     rm_vector_twrhit_alltrig.push_back(new pseudoRunningMean(1, depth));
   }
   for (int i = 0; i < 8; i++)
   {
     rm_packet_number.push_back(new pseudoRunningMean(1, packet_depth));
     rm_packet_length.push_back(new pseudoRunningMean(1, packet_depth));
     rm_packet_chans.push_back(new pseudoRunningMean(1, packet_depth));
   }
 
   OnlMonServer* se = OnlMonServer::instance();
   // register histograms with server otherwise client won't get them
   se->registerHisto(this, h2_hcal_hits);
   for (int itrig = 0; itrig < 64; itrig++)
   {
     se->registerHisto(this, h2_hcal_hits_trig[itrig]);
   }
 
   se->registerHisto(this, pr_zsFrac_etaphi);
   se->registerHisto(this, pr_zsFrac_etaphi_all);
   se->registerHisto(this, h_hcal_trig);
   se->registerHisto(this, h_evtRec);
   se->registerHisto(this, h_caloPack_gl1_clock_diff);
   se->registerHisto(this, h2_hcal_rm);
   se->registerHisto(this, h2_hcal_rm_alltrig);
   se->registerHisto(this, h2_hcal_mean);
   se->registerHisto(this, h2_hcal_time);
   se->registerHisto(this, h2_hcal_waveform);
   se->registerHisto(this, h_event);
   se->registerHisto(this, h_sectorAvg_total);
   se->registerHisto(this, h_waveform_twrAvg);
   se->registerHisto(this, h_waveform_time);
   se->registerHisto(this, h_waveform_pedestal);
   se->registerHisto(this, h_ntower);
   se->registerHisto(this, h1_packet_number);
   se->registerHisto(this, h1_packet_length);
   se->registerHisto(this, h1_packet_chans);
   se->registerHisto(this, h1_packet_event);
   se->registerHisto(this, h2_hcal_correlation);
   se->registerHisto(this, p2_pre_post);
 
   for (auto& ih : h_rm_sectorAvg)
   {
     se->registerHisto(this, ih);
   }
 
   for (auto& ieta : h_rm_tower)
   {
     for (auto& iphi : ieta)
     {
       se->registerHisto(this, iphi);
     }
   }
 
   Reset();
 
   // initialize waveform extraction tool
   WaveformProcessing = new CaloWaveformFitting();
 
   std::string hcaltemplate;
   if (getenv("HCALCALIB"))
   {
     hcaltemplate = getenv("HCALCALIB");
   }
   else
   {
     hcaltemplate = ".";
   }
   hcaltemplate += std::string("/testbeam_ohcal_template.root");
   // WaveformProcessing->initialize_processing(hcaltemplate);
 
   if (anaGL1)
   {
     erc = new eventReceiverClient("gl1daq");
   }
 
   return 0;
 }
 
 std::vector<float> HcalMon::getSignal(Packet* p, const int channel)
 {
   double baseline = 0;
   for (int s = 0; s < 3; s++)
   {
     baseline += p->iValue(s, channel);
   }
   baseline /= 3.;
 
   double signal = 0;
   int sample = 0;
   for (int s = 3; s < p->iValue(0, "SAMPLES"); s++)
   {
     if (signal > p->iValue(s, channel))
     {
       signal = p->iValue(s, channel);
       sample = s;
     }
   }
   signal -= baseline;
 
   std::vector<float> result;
   result.push_back(signal);
   result.push_back(sample);
   result.push_back(baseline);
 
   return result;
 }
 
 std::vector<float> HcalMon::anaWaveform(Packet* p, const int channel)
 {
   std::vector<float> waveform;
   // waveform.reserve(p->iValue(0, "SAMPLES"));
   float supppressed = 1;
   if (p->iValue(channel, "SUPPRESSED"))
   {
     waveform.push_back(p->iValue(channel, "PRE"));
     waveform.push_back(p->iValue(channel, "POST"));
   }
   else
   {
     supppressed = 0;
     for (int s = 0; s < p->iValue(0, "SAMPLES"); s++)
     {
       waveform.push_back(p->iValue(s, channel));
     }
   }
   std::vector<std::vector<float>> multiple_wfs;
   multiple_wfs.push_back(waveform);
 
   std::vector<std::vector<float>> fitresults_ohcal;
   // fitresults_ohcal = WaveformProcessing->process_waveform(multiple_wfs);
   fitresults_ohcal = WaveformProcessing->calo_processing_fast(multiple_wfs);
 
   std::vector<float> result;
   result = fitresults_ohcal.at(0);
   result.push_back(supppressed);
 
   return result;
 }
 
 int HcalMon::BeginRun(const int /* runno */)
 {
   // reset the thresholds
   hit_threshold = 30;
   waveform_hit_threshold = 100;
 
   // if you need to read calibrations on a run by run basis
   // this is the place to do it
 
   std::vector<runningMean*>::iterator rm_it;
   for (rm_it = rm_vector_sectAvg.begin(); rm_it != rm_vector_sectAvg.end(); ++rm_it)
   {
     (*rm_it)->Reset();
   }
   for (rm_it = rm_vector_twr.begin(); rm_it != rm_vector_twr.end(); ++rm_it)
   {
     (*rm_it)->Reset();
   }
   for (rm_it = rm_packet_number.begin(); rm_it != rm_packet_number.end(); ++rm_it)
   {
     (*rm_it)->Reset();
   }
   for (rm_it = rm_packet_length.begin(); rm_it != rm_packet_length.end(); ++rm_it)
   {
     (*rm_it)->Reset();
   }
   for (rm_it = rm_packet_chans.begin(); rm_it != rm_packet_chans.end(); ++rm_it)
   {
     (*rm_it)->Reset();
   }
   for (rm_it = rm_vector_twrTime.begin(); rm_it != rm_vector_twrTime.end(); ++rm_it)
   {
     (*rm_it)->Reset();
   }
   for (rm_it = rm_vector_twrhit.begin(); rm_it != rm_vector_twrhit.end(); ++rm_it)
   {
     (*rm_it)->Reset();
   }
   for (rm_it = rm_vector_twrhit_alltrig.begin(); rm_it != rm_vector_twrhit_alltrig.end(); ++rm_it)
   {
     (*rm_it)->Reset();
   }
   if (anaGL1)
   {
     OnlMonServer* se = OnlMonServer::instance();
     se->UseGl1();
   }
   return 0;
 }
 
 int HcalMon::process_event(Event* e /* evt */)
 {
   if (e->getEvtType() >= 8)  /// special event where we do not read out the calorimeters
   {
     return 0;
   }
   evtcnt++;
   h_waveform_twrAvg->Reset();  // only record the latest event waveform
   h1_packet_event->Reset();
   unsigned int towerNumber = 0;
   float sectorAvg[Nsector] = {0};
   int npacket1 = 0;
   int npacket2 = 0;
   float energy1 = 0;
   float energy2 = 0;
 
   bool fillhist = true;
   std::vector<bool> trig_bools;
   trig_bools.resize(64);
   long long int gl1_clock = 0;
   bool have_gl1 = false;
   if (anaGL1)
   {
     int evtnr = e->getEvtSequence();
     Event* gl1Event = erc->getEvent(evtnr);
     if (gl1Event)
     {
       OnlMonServer* se = OnlMonServer::instance();
       se->IncrementGl1FoundCounter();
       have_gl1 = true;
       Packet* p = gl1Event->getPacket(14001);
       h_evtRec->Fill(0.0, 1.0);
       if (p)
       {
         gl1_clock = p->lValue(0, "BCO");
         uint64_t triggervec = p->lValue(0, "ScaledVector");
         for (int i = 0; i < 64; i++)
         {
           bool trig_decision = ((triggervec & 0x1U) == 0x1U);
           trig_bools[i] = trig_decision;
 
           if (trig_decision)
           {
             h_hcal_trig->Fill(i);
           }
           triggervec = (triggervec >> 1U);
         }
 
         delete p;
       }
       delete gl1Event;
     }
     else
     {
       std::cout << "GL1 event is null" << std::endl;
       h_evtRec->Fill(0.0, 0.0);
     }
     // this is for only fill certain histogram with the MBD>=1 trigger or cosmic single trigger(and they should never run together!!)
     if (usetrig4_10)
     {
       // commenting out until we have a better way to handle cosmic bits -- tanner
       if (trig_bools.at(TriggerEnum::BitCodes::MBD_NS2_ZVRTX10) == 0 && trig_bools.at(TriggerEnum::BitCodes::MBD_NS2_ZVRTX30) == 0 && trig_bools.at(TriggerEnum::BitCodes::MBD_NS2_ZVRTX150) == 0 && trig_bools.at(TriggerEnum::BitCodes::HCAL_SINGLES) == 0)
       {
         fillhist = false;
       }
       // if we have hcal single cosmic trigger we are in cosmic running mode and need to adjust thresholds accordingly
       if (trig_bools.at(TriggerEnum::BitCodes::RANDOM) || trig_bools.at(TriggerEnum::BitCodes::HCAL_SINGLES) || trig_bools.at(TriggerEnum::BitCodes::HCAL_NARROW_VERT) || trig_bools.at(TriggerEnum::BitCodes::HCAL_WIDE_VERT) || trig_bools.at(TriggerEnum::BitCodes::HCAL_NARROW_HORZ) || trig_bools.at(TriggerEnum::BitCodes::HCAL_WIDE_HORZ))
       {
         hit_threshold = 1000;
         waveform_hit_threshold = 1500;
       }
     }
   }
 
   for (int packet = packetlow; packet <= packethigh; packet++)
   {
     Packet* p = e->getPacket(packet);
     int zero[1] = {0};
     int one[1] = {1};
     int packet_bin = packet - packetlow + 1;
     if (p)
     {
       rm_packet_number[packet - packetlow]->Add(one);
       int packet_length[1] = {p->getLength()};
       rm_packet_length[packet - packetlow]->Add(packet_length);
 
       h1_packet_length->SetBinContent(packet_bin, rm_packet_length[packet - packetlow]->getMean(0));
 
       h1_packet_event->SetBinContent(packet - packetlow + 1, p->lValue(0, "CLOCK"));
       if (have_gl1)
       {
         long long int p_clock = p->lValue(0, "CLOCK");
         long long int diff = (p_clock - gl1_clock) % 65536;
         h_caloPack_gl1_clock_diff->Fill(packet, diff);
       }
       int nChannels = p->iValue(0, "CHANNELS");
       if (nChannels > m_nChannels)
       {
         return -1;  // packet is corrupted, reports too many channels
       }
       else
       {
         npacket1++;
         rm_packet_chans[packet - packetlow]->Add(&nChannels);
         h1_packet_chans->SetBinContent(packet_bin, rm_packet_chans[packet - packetlow]->getMean(0));
       }
       for (int c = 0; c < nChannels; c++)
       {
         towerNumber++;
 
         // std::vector result =  getSignal(p,c); // simple peak extraction
         std::vector<float> result = anaWaveform(p, c);  // full waveform fitting
         float signal = result.at(0);
         float time = result.at(1);
         float pedestal = result.at(2);
         float suppressed = result.at(result.size() - 1);
         float prepost = p->iValue(c, "PRE") - p->iValue(c, "POST");
         if (signal > 15 && signal < 15000)
         {
           energy1 += signal;
         }
 
         // channel mapping
         unsigned int key = TowerInfoDefs::encode_hcal(towerNumber - 1);
         unsigned int phi_bin = TowerInfoDefs::getCaloTowerPhiBin(key);
         unsigned int eta_bin = TowerInfoDefs::getCaloTowerEtaBin(key);
         int sectorNumber = phi_bin / 2 + 1;
         int bin = h2_hcal_mean->FindBin(eta_bin + 0.5, phi_bin + 0.5);
         //________________________________for this part we only want to deal with the MBD>=1 trigger
         if (fillhist)
         {
           if (signal > hit_threshold)
           {
             rm_vector_twrTime[towerNumber - 1]->Add(&time);
             rm_vector_twrhit[towerNumber - 1]->Add(one);
           }
           else
           {
             rm_vector_twrhit[towerNumber - 1]->Add(zero);
           }
           h_waveform_pedestal->Fill(pedestal);
 
           if (suppressed == 1)
           {
             pr_zsFrac_etaphi->Fill(eta_bin, phi_bin, 0);
           }
           else
           {
             pr_zsFrac_etaphi->Fill(eta_bin, phi_bin, 1);
           }
 
           sectorAvg[sectorNumber - 1] += signal;
 
           rm_vector_twr[towerNumber - 1]->Add(&signal);
 
           h2_hcal_mean->SetBinContent(bin, h2_hcal_mean->GetBinContent(bin) + signal);
           h2_hcal_rm->SetBinContent(bin, rm_vector_twrhit[towerNumber - 1]->getMean(0));
           h2_hcal_time->SetBinContent(bin, rm_vector_twrTime[towerNumber - 1]->getMean(0));
 
           // fill tower_rm here
           if (evtcnt <= historyLength * historyScaleDown)
           {
             // only fill every scaledown event
             if (evtcnt % historyScaleDown == 0)
             {
               h_rm_tower[eta_bin][phi_bin]->SetBinContent(evtcnt / historyScaleDown, rm_vector_twrhit[towerNumber - 1]->getMean(0));
             }
           }
           else
           {
             // only fill every scaledown event
             if (evtcnt % historyScaleDown == 0)
             {
               for (int ib = 1; ib < historyLength; ib++)
               {
                 h_rm_tower[eta_bin][phi_bin]->SetBinContent(ib, h_rm_tower[eta_bin][phi_bin]->GetBinContent(ib + 1));
               }
               h_rm_tower[eta_bin][phi_bin]->SetBinContent(historyLength, rm_vector_twrhit[towerNumber - 1]->getMean(0));
             }
           }
         }
         //_______________________________________________________end of MBD trigger requirement
         if (suppressed == 1)
         {
           pr_zsFrac_etaphi_all->Fill(eta_bin, phi_bin, 0);
         }
         else
         {
           pr_zsFrac_etaphi_all->Fill(eta_bin, phi_bin, 1);
         }
         // record waveform
         for (int s = 0; s < p->iValue(0, "SAMPLES"); s++)
         {
           h_waveform_twrAvg->Fill(s, p->iValue(s, c));
           if (signal > waveform_hit_threshold)
           {
             h2_hcal_waveform->Fill(s, (p->iValue(s, c) - pedestal));
           }
         }
         if (signal > waveform_hit_threshold)
         {
           h_waveform_time->Fill(time);
         }
 
         if (signal > hit_threshold)
         {
           h2_hcal_hits->Fill(eta_bin + 0.5, phi_bin + 0.5);
           for (int itrig = 0; itrig < 64; itrig++)
           {
             if (trig_bools[itrig])
             {
               h2_hcal_hits_trig[itrig]->Fill(eta_bin + 0.5, phi_bin + 0.5);
             }
           }
           rm_vector_twrhit_alltrig[towerNumber - 1]->Add(one);
         }
         else
         {
           rm_vector_twrhit_alltrig[towerNumber - 1]->Add(zero);
         }
         if (prepost > 0)
         {
           p2_pre_post->Fill(eta_bin, phi_bin, prepost);
           p2_pre_post->Fill(eta_bin, phi_bin, -prepost);
         }
         h2_hcal_rm_alltrig->SetBinContent(bin, rm_vector_twrhit_alltrig[towerNumber - 1]->getMean(0));
 
       }  // channel loop
 
     }  // if packet good
     else
     {
       towerNumber += 192;
       rm_packet_number[packet - packetlow]->Add(zero);
     }
     h1_packet_number->SetBinContent(packet_bin, rm_packet_number[packet - packetlow]->getMean(0));
     delete p;
   }  // packet loop
   // if packetlow == 8001, then packetlowdiff = 7001, if packetlow == 7001, then packetlowdiff = 8001
   int packetlowdiff = 15002 - packetlow;
   int packethighdiff = 15016 - packethigh;
 
   if (npacket1 == 4)
   {
     for (int i = packetlowdiff; i <= packethighdiff; i++)
     {
       Packet* p = e->getPacket(i);
       if (p)
       {
         int nChannels = p->iValue(0, "CHANNELS");
         if (nChannels > m_nChannels)
         {
           return -1;  // packet is corrupted, reports too many channels
         }
         else
         {
           npacket2++;
         }
         for (int c = 0; c < nChannels; c++)
         {
           // std::vector result =  getSignal(p,c); // simple peak extraction
           std::vector<float> result = anaWaveform(p, c);  // full waveform fitting
           float signal = result.at(0);
           if (signal > 15 && signal < 15000)
           {
             energy2 += signal;
           }
         }
       }
       delete p;
     }
   }
   if (npacket1 == 4 && npacket2 == 4)
   {
     if (packetlow == 8001)
     {
       h2_hcal_correlation->Fill(energy1, energy2);
     }
     else
     {
       h2_hcal_correlation->Fill(energy2, energy1);
     }
   }
   // sector loop
   for (int isec = 0; isec < Nsector; isec++)
   {
     sectorAvg[isec] /= 48;
     h_sectorAvg_total->Fill(isec + 1, sectorAvg[isec]);
     rm_vector_sectAvg[isec]->Add(&sectorAvg[isec]);
     if (evtcnt <= historyLength * historyScaleDown)
     {
       // only fill every scaledown event
       if (evtcnt % historyScaleDown == 0)
       {
         h_rm_sectorAvg[isec]->SetBinContent(evtcnt / historyScaleDown, rm_vector_sectAvg[isec]->getMean(0));
       }
     }
     else
     {
       // only fill every scaledown event
       if (evtcnt % historyScaleDown == 0)
       {
         for (int ib = 1; ib < historyLength; ib++)
         {
           h_rm_sectorAvg[isec]->SetBinContent(ib, h_rm_sectorAvg[isec]->GetBinContent(ib + 1));
         }
         h_rm_sectorAvg[isec]->SetBinContent(historyLength, rm_vector_sectAvg[isec]->getMean(0));
       }
     }
 
   }  // sector loop
 
   if (fillhist) h_event->Fill(0);
   h_waveform_twrAvg->Scale(1. / 32. / 48.);  // average tower waveform
 
   return 0;
 }
 
 int HcalMon::Reset()
 {
   // reset our internal counters
   evtcnt = 0;
   idummy = 0;
   return 0;
 }

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