test_TpcToolBasedRawDigitPrepService.cxx File Reference

#include <string>
#include <iostream>
#include <sstream>
#include <fstream>
#include <iomanip>
#include "art/Framework/Services/Registry/ServiceHandle.h"
#include "lardata/DetectorInfoServices/DetectorClocksService.h"
#include "lardataobj/RawData/RawDigit.h"
#include "dunecore/ArtSupport/ArtServiceHelper.h"
#include "dunecore/ArtSupport/DuneToolManager.h"
#include "dunecore/DuneInterface/Data/AdcTypes.h"
#include "dunecore/DuneInterface/Service/RawDigitPrepService.h"
#include "dunecore/DuneInterface/Data/WiredAdcChannelDataMap.h"
#include <cassert>
#include "TH1.h"

Go to the source code of this file.

Functions
bool	sigequal (AdcSignal sig1, AdcSignal sig2)
bool	flagequal (AdcFlag flg1, AdcFlag flg2)
int	test_TpcToolBasedRawDigitPrepService (bool useExistingFcl=false)
int	main (int argc, char *argv[])

Function Documentation

bool flagequal	(	AdcFlag	flg1,
		AdcFlag	flg2
	)

Definition at line 52 of file test_TpcToolBasedRawDigitPrepService.cxx.

                                           {
  if ( flg1 == flg2 ) return true;
  if ( flg1 == AdcInterpolated && flg2 == AdcStuckOff ) return true;
  if ( flg1 == AdcInterpolated && flg2 == AdcStuckOn ) return true;
  if ( flg1 == AdcSetFixed ) return true;
  cout << "flagequal: " << flg1 << " != " << flg2 << endl;
  return false;
}

int main	(	int	argc,
		char *	argv[]
	)

Definition at line 320 of file test_TpcToolBasedRawDigitPrepService.cxx.

                                 {
  bool useExistingFcl = false;
  if ( argc > 1 ) {
    string sarg(argv[1]);
    if ( sarg == "-h" ) {
      cout << "Usage: " << argv[0] << " [UseExisting]" << endl;
      cout << "  If UseExisting = true, existing FCL file is used [false]." << endl;
      return 0;
    }
    useExistingFcl = sarg == "true" || sarg == "1";
  }
  TH1::AddDirectory(false);
  return test_TpcToolBasedRawDigitPrepService(useExistingFcl);
}

bool sigequal	(	AdcSignal	sig1,
		AdcSignal	sig2
	)

Definition at line 43 of file test_TpcToolBasedRawDigitPrepService.cxx.

                                              {
  AdcSignal sigdiff = sig2 - sig1;
  if ( sigdiff < -0.5 || sigdiff >  0.5 ) {
    cout << "sigequal: " << sig1 << " != " << sig2 << endl;
    return false;
  }
  return true;
}

int test_TpcToolBasedRawDigitPrepService

(

bool

useExistingFcl = false

)

Definition at line 63 of file test_TpcToolBasedRawDigitPrepService.cxx.

                                                                     {
  const string myname = "test_TpcToolBasedRawDigitPrepService: ";
#ifdef NDEBUG
  cout << myname << "NDEBUG must be off." << endl;
  abort();
#endif
  string line = "-----------------------------";

  cout << myname << line << endl;
  cout << myname << "Create top-level FCL." << endl;
  std::string const fclfile{"test_TpcToolBasedRawDigitPrepService.fcl"};
  if (!useExistingFcl) {
    std::ofstream fout{fclfile};
    fout << "#include \"services_dune.fcl\"" << endl;
    fout << "services:      @local::dune35t_services_legacy" << endl;    // Need geometry for wire building.
    fout << "#include \"tools_dune.fcl\"" << endl;
    fout << "services.AdcWireBuildingService: {" << endl;
    fout << "  service_provider: StandardAdcWireBuildingService" << endl;
    fout << "  LogLevel:       1" << endl;
    fout << "}" << endl;
    fout << "services.RawDigitPrepService: {" << endl;
    fout << "  service_provider: TpcToolBasedRawDigitPrepService" << endl;
    fout << "  LogLevel: 3" << endl;
    fout << "  DoWires: true" << endl;
    fout << "  ToolNames: [" << endl;
    fout << "    \"digitReader\"," << endl;
    // fout << "    \"adcChannelDumper\"," << endl;
    fout << "    \"rawAdcPlotter\"," << endl;
    fout << "    \"adcSampleFiller\"," << endl;
    fout << "    \"preparedAdcPlotter\"," << endl;
    fout << "    \"adcThresholdSignalFinder\"" << endl;
    // fout << ",    \"adcRoiViewer\"" << endl;
    fout << "  ]" << endl;
    fout << "  CallgrindToolNames: []" << endl;
    fout << "}" << endl;
    fout.close();
  }
  assert( DuneToolManager::fclFilename(fclfile) == fclfile );
  std::ifstream config{fclfile};
  ArtServiceHelper::load_services(config);

  cout << myname << line << endl;
  cout << myname << "Fetching tool manager." << endl;
  DuneToolManager* ptm = DuneToolManager::instance(fclfile);
  assert ( ptm != nullptr );
  DuneToolManager& tm = *ptm;
  tm.print();
  assert( tm.toolNames().size() > 10 );

  AdcCount lowbits = 63;
  AdcCount highbits = 4095 - 63;

  cout << myname << line << endl;
  cout << myname << "Create raw digits." << endl;
  AdcChannel nchan = 8;
  unsigned int nsig = 64;
  AdcSignalVectorVector sigsin(nchan);
  float fac = 25.0;
  unsigned int isig_stucklo = 15;
  unsigned int isig_stuckhi = 25;
  bool doSticky = false;
  // nchan is 8
  AdcSignal peds[8] = {2000.2, 2010.1, 2020.3, 1990.4, 1979.6, 1979.2, 1995.0, 2001.3};
  vector<RawDigit> digs;
  map<AdcChannel, AdcCountVector> adcsmap;
  map<AdcChannel, AdcFlagVector> expflagsmap;
  // Each channel is filled with a bipolar signal offset by one from preceding channel.
  for ( AdcChannel chan=0; chan<nchan; ++chan ) {
    unsigned int isig1 = 10 + chan;
    for ( unsigned int isig=0; isig<isig1; ++isig ) sigsin[chan].push_back(0);
    for ( unsigned int i=0; i<10; ++i )             sigsin[chan].push_back(fac*i);
    for ( unsigned int i=10; i<1000; --i )            sigsin[chan].push_back(fac*i);
    for ( unsigned int i=19; i<1000; --i )            sigsin[chan].push_back(-sigsin[chan][i+isig1]);
    for ( unsigned int isig=sigsin[chan].size();
                               isig<nsig; ++isig )  sigsin[chan].push_back(0);
    assert(sigsin[chan].size() == nsig);
    AdcCountVector adcsin;
    for ( unsigned int isig=0; isig<nsig; ++isig) {
      AdcSignal sig = sigsin[chan][isig] + peds[chan];
      AdcCount adc = 0;
      if ( sig > 0.0 ) adc = int(sig+0.5);
      if ( adc > 4095 ) adc = 4095;
      AdcCount adchigh = adc & highbits;
      if ( doSticky ) {
        if ( isig == isig_stucklo ) adc = adchigh;           // Stuck low bits to zero.
        if ( isig == isig_stuckhi ) adc = adchigh + lowbits; // Stuck low bits to one.
      }
      adcsin.push_back(adc);
    }
    assert(adcsin.size() == nsig);
    adcsmap[chan] = adcsin;
    // Create RawDigit.
    RawDigit& dig = *digs.emplace(digs.end(), chan, nsig, adcsin, raw::kNone);
    dig.SetPedestal(peds[chan]);
    cout << myname << "    Compressed size: " << dig.NADC() << endl;
    cout << myname << "  Uncompressed size: " << dig.Samples() << endl;
    cout << myname << "           Pedestal: " << dig.GetPedestal() << endl;
    cout << myname << "            Channel: " << dig.Channel() << endl;
    assert(dig.Samples() == nsig);
    assert(dig.Channel() == chan);
    assert(dig.GetPedestal() == peds[chan]);
  }
  assert( adcsmap.size() == nchan );

  cout << myname << line << endl;
  cout << myname << "Create the expected flag vector." << endl;
  for ( AdcChannel chan=0; chan<nchan; ++chan ) {
    AdcFlagVector expflags(nsig, AdcGood);
    for ( unsigned int isig=0; isig<nsig; ++isig) {
      AdcCount adc = adcsmap[chan][isig];
      AdcCount adclow = adc & lowbits;
      if ( adc <= 0 ) expflags[isig] = AdcUnderflow;
      else if ( adc >= 4095 ) expflags[isig] = AdcOverflow;
      else if ( doSticky ) {
        if      ( adclow == 0 ) expflags[isig] = AdcStuckOff;
        else if ( adclow == lowbits ) expflags[isig] = AdcStuckOn;
      }
    }
    expflagsmap[chan] = expflags;
  }

  cout << myname << line << endl;
  cout << myname << "Fetch raw digit prep service." << endl;
  ServiceHandle<RawDigitPrepService> hrdp;
  hrdp->print();

  cout << myname << line << endl;
  cout << myname << "Prep data from digits." << endl;
  AdcSignalVector sigs;
  AdcFlagVector flags;
  AdcChannelDataMap prepdigs;
  for ( unsigned int idig=0; idig<digs.size(); ++idig ) {
    const RawDigit& dig = digs[idig];
    assert( prepdigs.find(dig.Channel()) == prepdigs.end() );
    AdcChannelData& data = prepdigs[dig.Channel()];
    data.setChannelInfo(dig.Channel());
    data.digitIndex = idig;
    data.digit = &dig;
    data.setEventInfo(123, 1);
  }
  std::vector<recob::Wire> wires;
  wires.reserve(nchan);
  vector<string> snames;
  WiredAdcChannelDataMap intStates(snames, nchan);
  assert( intStates.dataMaps.size() == snames.size() );
  assert( intStates.wires.size() == snames.size() );
  auto const clockData = art::ServiceHandle<detinfo::DetectorClocksService const>()->DataForJob();
  assert( hrdp->prepare(clockData, prepdigs, &wires, &intStates) == 0 );
  cout << myname << "      # prepared digit channels: " << prepdigs.size() << endl;
  cout << myname << "                # wire channels: " << wires.size() << endl;
  cout << myname << "  # intermediate state channels: " << intStates.dataMaps.size() << endl;
  for ( const auto& namedadm : intStates.dataMaps ) {
    string sname = namedadm.first;
    const AdcChannelDataMap& adm = namedadm.second;
    auto iwco = intStates.wires.find(sname);
    const vector<Wire>* pwires = nullptr;
    if ( iwco == intStates.wires.end() ) {
      cout << myname << "  Wires not found for intermediate state " << sname << "." << endl;
      assert( iwco != intStates.wires.end() );
    } else {
      pwires = iwco->second;
    }
    assert( pwires != nullptr );
    cout << myname << "  State " << sname << " has " << adm.size() << " ADC channels";
    if ( pwires != nullptr ) cout << " and " << pwires->size() << " wires";
    cout <<"." << endl;
    assert( pwires->size() == adm.size() );
  }
  cout << myname << "   # intermediate wires: " << intStates.wires.size() << endl;
  for ( AdcChannelDataMap::const_iterator ichdat=prepdigs.begin(); ichdat!=prepdigs.end(); ++ichdat ) {
    AdcChannel chan = ichdat->first;
    const AdcChannelData& acd = ichdat->second;
    const AdcSignalVector& sigs = acd.samples;
    const AdcFlagVector& flags = acd.flags;
    const raw::RawDigit* pdig = acd.digit;
    const Wire* pwire = acd.wire;
    AdcSignal ped = acd.pedestal;
    cout << myname << "----- Channel " << chan << endl;
    cout << myname << "  Final signal tick count: " << sigs.size() << endl;
    cout << myname << "    Final flag tick count: " << flags.size() << endl;
    cout << myname << "    Final flag tick count: " << flags.size() << endl;
    cout << myname << "                 Pedestal: " << ped << endl;
    cout << myname << "               samples[0]: " << sigs[0] << endl;
    cout << myname << "Check final data." << endl;
    assert( pwire != nullptr );
    assert( pwire->SignalROI().size() > 0 );
    assert( sigs.size() == nsig );
    assert( flags.size() == nsig );
    assert( pdig != nullptr );
    assert( pdig == &digs[chan] );
    assert( pdig->Channel() == chan );
    assert( ichdat->second.digitIndex == chan );
    const AdcFlagVector& expflags = expflagsmap[chan];
    assert( expflagsmap[chan].size() == nsig );
    // Fetch intermediate data.
    cout << myname << "Fetch intermediate data." << endl;
    vector<const AdcSignalVector*> intSigs;
    vector<const AdcFlagVector*> intFlags;
    cout << myname << "  ...bad" << endl;
    auto iacd = intStates.dataMaps.find("bad");
    assert( iacd == intStates.dataMaps.end() );
    string header = "   ch-tk  raw";
    unsigned int nintexp = 0;
    for ( string sname : snames ) {
      cout << myname << "  ..." << sname << endl;
      iacd = intStates.dataMaps.find(sname);
      assert( iacd != intStates.dataMaps.end() );
      const AdcChannelData& intAcd = iacd->second[chan];
      intSigs.push_back(&intAcd.samples);
      intFlags.push_back(&intAcd.flags);
      assert( intAcd.wire != nullptr );
      for ( unsigned int i=sname.size(); i<12; ++i ) header += " ";
      header += sname;
      ++nintexp;
      cout << myname << "    Checking sample and flag tick counts." << endl;
      assert( intSigs.back() != nullptr );
      assert( intSigs.back()->size() != 0 );
      assert( intSigs.back()->size() == nsig );
      assert( intFlags.back() != nullptr );
      assert( intFlags.back()->size() != 0 );
      assert( intFlags.back()->size() == nsig );
      cout << myname << "     Wire ROI count: " << intAcd.wire->SignalROI().n_ranges() << endl;
      cout << myname << "    Wire Tick count: " << intAcd.wire->SignalROI().size() << endl;
      assert( intAcd.wire->SignalROI().n_ranges() == 1 );
      assert( intAcd.wire->SignalROI().size() == nsig );
    }
    header += "       final";
    assert( intStates.dataMaps.size() == nintexp );
    //assert( intStates.wires.size() == nintexp );
    assert( intSigs.size() == nintexp );
    assert( intFlags.size() == nintexp );
    // Display results.
    cout << myname << "Display intermediate and final samples." << endl;
    cout << myname << header << endl;
    for ( unsigned int isig=0; isig<nsig; ++isig ) {
      cout << myname;
      cout << setw(4) << chan << "-"
           << setw(2) << isig << ": " << setw(4) << adcsmap[chan][isig];
      for ( unsigned int ista=0; ista<intSigs.size(); ++ista ) {
        cout << fixed << setprecision(1) << setw(8) << intSigs[ista]->at(isig);
        cout << " [" << intFlags[ista]->at(isig) << "]";
      }
      cout << fixed << setprecision(1) << setw(8) << sigs[isig]
           << " [" << flags[isig] << "]" << endl;
      assert( adcsmap[chan][isig] == acd.raw[isig] );
      if ( flags[isig] == AdcGood ) assert( sigequal(sigs[isig], sigsin[chan][isig]) );
      assert( flagequal(flags[isig], expflags[isig]) );
    }
  }

  cout << myname << line << endl;
  cout << "Done." << endl;
  return 0;
}