KVFAZIA.cpp

//Created by KVClassFactory on Tue Jan 27 11:37:39 2015
//Author: ,,,
 
#include "KVFAZIA.h"
#include "KVGeoImport.h"
#include "KVFAZIADetector.h"
#include "KVGroup.h"
#include "KVDetectorEvent.h"
#include "KVTarget.h"
#include "KVDataSet.h"
#include "KVConfig.h"
#include "KVFAZIAIDSiPSA.h"
#include "KVFAZIAIDCsI.h"
#include "KVFAZIAIDSiCsI.h"
#include "KVFAZIAIDSiSi.h"
 
#include "TGeoCompositeShape.h"
#include "TGeoEltu.h"
 
#include <KVFAZIAIDSiSiCsI.h>
#include <KVReconstructedNucleus.h>
 
#ifdef WITH_MFM
#include "MFMFaziaFrame.h"
#endif
 
#ifdef WITH_PROTOBUF
#include "FzEventSet.pb.h"
#include "KVFzDataReader.h"
#endif
 
ClassImp(KVFAZIA)
 
// BEGIN_HTML <!--
/* -->
<h2>KVFAZIA</h2>
<h4>Base class for description of the FAZIA set up</h4>
<!-- */
// --> END_HTML
KVFAZIA* gFazia;
 
static Char_t const* const FzDataType_str[] = { "QH1", "I1", "QL1", "Q2", "I2", "Q3", "ADC", "UNK" };
static Char_t const* const FzDetector_str[] = { "SI1", "SI1", "SI1", "SI2", "SI2", "CSI" };
 
 
 
KVFAZIA::KVFAZIA(const Char_t* title)
   : KVMultiDetArray("FAZIA", title)
{
   // Default constructor
   fStartingBlockNumber = 0;
   gFazia = this;
   fDetectorLabels = "";
   fSignalTypes = "QL1,I1,QH1,Q2,I2,Q3";
   SetGeometryImportParameters();
   CreateCorrespondence();
 
   // values of trapezoidal filter rise time set in the fpgas to be linked with a database...
   fQH1risetime    = GetSetupParameter("QH1.FPGARiseTime");
   fQ2risetime     = GetSetupParameter("Q2.FPGARiseTime");
   fQ3slowrisetime = GetSetupParameter("Q3.slow.FPGARiseTime");
   fQ3fastrisetime = GetSetupParameter("Q3.fast.FPGARiseTime");
 
   Info("KVFAZIA", "fpga shapers: %lf %lf %lf %lf", fQH1risetime, fQ2risetime, fQ3slowrisetime, fQ3fastrisetime);
}
 
 
 
 
Double_t KVFAZIA::GetSetupParameter(const Char_t* parname)
{
 
   Double_t lval = -1;
   if (gDataSet)  lval = gDataSet->GetDataSetEnv(parname, 0.0);
   else           lval = gEnv->GetValue(parname, 0.0);
   return lval;
}
 
 
 
 
void KVFAZIA::SetRawDataFromReconEvent(const KVReconstructedEvent& recev)
{
   // Set values of all raw data parameters and the value of the trigger bit pattern for the event
 
   prepare_to_handle_new_raw_data();
   auto parlist = recev.GetParameters();
   if (parlist->HasIntParameter("FAZIA.TRIGPAT")) SetTriggerPattern(parlist->GetIntValue("FAZIA.TRIGPAT"));
   else {
      SetTriggerPattern(0);// FAZIA absent from event
      return;
   }
   // loop over all nuclei in event
   for(auto& rnuc : recev)
   {
      // loop over all nodes in reconstruction trajectory
      rnuc.GetReconstructionTrajectory()->IterateFrom();
      while( auto rnod = rnuc.GetReconstructionTrajectory()->GetNextNode() )
      {
         // loop over all signals of associated detector
         for(auto ds_p : rnod->GetDetector()->GetListOfDetectorSignals())
         {
            auto ds = dynamic_cast<KVDetectorSignal&>(*ds_p);
            TString parname = Form("%s.%s", rnod->GetName(), ds.GetName());
            if(rnuc.GetParameters()->HasParameter(parname))
            {
               add_and_set_detector_signal(rnod->GetDetector(),rnod->GetName(),
                                           rnuc.GetParameters()->GetDoubleValue(parname),ds.GetType());
            }
         }
      }
   }
}
 
 
 
 
void KVFAZIA::MakeCalibrationTables(KVExpDB* db)
{
   // Override base method in order to read FAZIA trigger for each run
 
   KVMultiDetArray::MakeCalibrationTables(db);
   ReadTriggerPatterns(db);
}
 
 
 
 
std::string KVFAZIA::GetTriggerForCurrentRun() const
{
   // Returns the symbolic name for the principal DAQ trigger used for the current run
   // e.g. 'Mult2', 'Mult1/100', etc. (see SetTriggerPatternsForDataSet()).
   //
   // This can be used to test if the actual DAQ trigger for an event was consistent
   // with the principal trigger by doing:
   //
   //~~~~{.cpp}
   // if( gFazia->GetTrigger().IsTrigger( gFazia->GetTriggerForCurrentRun() ) )
   // {
   //     ===ok in this case trigger is consistent==
   // }
   //~~~~
 
   if (gExpDB) {
      if (gExpDB->GetTable("FAZIA.Triggers")) {
         auto rundb = gExpDB->GetDBRun(GetCurrentRunNumber());
         if (rundb) {
            auto links = rundb->GetLinks("FAZIA.Triggers");
            if (links && links->GetEntries())
               return links->First()->GetName();
         }
      }
   }
   return "";
}
 
 
 
 
void KVFAZIA::DeduceIdentificationTelescopesFromGeometry()
{
   // Set identification telescope objects for FAZIA geometry by hand.
   //
   // The actual telescope classes used depends on the value of the variable:
   //
   //~~~
   //[dataset].FAZIA.IDTelescopes
   //~~~
   //
   // which can be different for different datasets.
   //
   // The default value is
   //~~~
   //FAZIA.IDTelescopes: SI1-PSA SI1-SI2 SI2-CSI CSI-PSA
   //~~~
   //
   // The possible values are:
   //   - CSI-PSA
   //   - SI2-CSI
   //   - SI1+SI2-CSI (name: ID_SI_CSI_xxxx)
   //   - SI2-PSA
   //   - SI1-SI2
   //   - SI1-PSA
 
 
   auto id_tel_list = GetDataSetEnv<KVString>(fDataSet, "FAZIA.IDTelescopes");
 
   fIDTelescopes->Delete();
   TIter next_traj(GetTrajectories());
   KVGeoDNTrajectory* traj;
   while ((traj = (KVGeoDNTrajectory*)next_traj())) {   // loop over all trajectories
 
      traj->IterateBackFrom();   // from closest-in to furthest-out detector
 
      KVGeoDetectorNode* N;
      KVDetector* csi{nullptr}, *si2{nullptr}, *si1{nullptr};
      while ((N = traj->GetNextNode())) {
         auto d = N->GetDetector();
         if (d->IsLabelled("SI1") && d->IsOK()) si1 = d;
         else if (d->IsLabelled("SI2") && d->IsOK()) si2 = d;
         else if (d->IsLabelled("CSI") && d->IsOK()) csi = d;
      }
 
      auto add_telescope = [ = ](KVIDTelescope * idt, KVGroup * g) {
         idt->SetGroup(g);
         traj->AccessIDTelescopeList()->Add(idt);
         fIDTelescopes->Add(idt);
      };
 
      if (csi) {
         // add CSI, SI2-CSI and/or SI1-SI2-CSI telescopes
         if (id_tel_list.Contains("CSI-PSA")) {
            auto idt = new KVFAZIAIDCsI;
            idt->AddDetector(csi);
            add_telescope(idt, csi->GetGroup());
         }
         if (si2) {
            if (!id_tel_list.Contains("SI1+SI2-CSI") && id_tel_list.Contains("SI2-CSI")) {
               auto idt = new KVFAZIAIDSiCsI;
               idt->AddDetector(si2);
               idt->AddDetector(csi);
               add_telescope(idt, csi->GetGroup());
            }
            if (si1) {
               if (id_tel_list.Contains("SI1+SI2-CSI")) {
                  auto idt = new KVFAZIAIDSiSiCsI;
                  idt->AddDetector(si1);
                  idt->AddDetector(si2);
                  idt->AddDetector(csi);
                  // change naming of Si-CsI telescopes
                  fSiCsI_idtype = "SI_CSI";
                  idt->SetName(Form("ID_SI_CSI_%d", csi->GetIndex()));
                  add_telescope(idt, csi->GetGroup());
               }
            }
         }
      }
      if (si2) {
         if (id_tel_list.Contains("SI2-PSA")) {
            auto idt = new KVFAZIAIDSiPSA;
            idt->AddDetector(si2);
            add_telescope(idt, si2->GetGroup());
         }
      }
      if (si1 && si2) {
         if (id_tel_list.Contains("SI1-SI2")) {
            auto idt = new KVFAZIAIDSiSi;
            idt->AddDetector(si1);
            idt->AddDetector(si2);
            add_telescope(idt, si2->GetGroup());
         }
      }
      if (si1) {
         if (id_tel_list.Contains("SI1-PSA")) {
            auto idt = new KVFAZIAIDSiPSA;
            idt->AddDetector(si1);
            add_telescope(idt, si1->GetGroup());
         }
      }
   }
}
 
 
 
 
void KVFAZIA::AssociateTrajectoriesAndNodes()
{
   // Check for weird trajectories: any misalignment of FAZIA telescopes w.r.t.
   // theoretical geometry will lead to weird trajectories being generated
   //
   // We discard any trajectory with > 3 nodes
 
   TIter it(&fTrajectories);
   KVGeoDNTrajectory* geo_dn_traj;
   KVList rubbish;
   while ((geo_dn_traj = (KVGeoDNTrajectory*)it())) {
      if (geo_dn_traj->GetN() != 3) {
         Warning("AssociateNodesAndTrajectories",
                 "Discarding garbage trajectory: %s", geo_dn_traj->GetPathString().Data());
         rubbish.Add(geo_dn_traj);
      }
      else {
         // check all detectors have same index
         geo_dn_traj->IterateFrom();
         KVGeoDetectorNode* gdn;
         std::optional<int> index;
         while ((gdn = geo_dn_traj->GetNextNode())) {
            if (index) {
               if (*index != gdn->GetDetector()->GetIndex()) {
                  Warning("AssociateNodesAndTrajectories",
                          "Discarding garbage trajectory: %s", geo_dn_traj->GetPathString().Data());
                  rubbish.Add(geo_dn_traj);
                  break;
               }
            }
            else
               index = gdn->GetDetector()->GetIndex();
         }
      }
   }
 
   for (auto tr : rubbish) {
      fTrajectories.Remove(tr);
   }
   KVMultiDetArray::AssociateTrajectoriesAndNodes();
}
 
 
 
 
 
KVFAZIA::~KVFAZIA()
{
   // Destructor
 
   if (gFazia == this) gFazia = nullptr;
}
 
 
 
 
void KVFAZIA::AddDetectorLabel(const Char_t* label)
{
   if (fDetectorLabels == "") fDetectorLabels += label;
   else if (!fDetectorLabels.Contains(label)) fDetectorLabels += Form(",%s", label);
}
 
 
 
 
void KVFAZIA::GenerateCorrespondanceFile()
{
   // Look for the geometry object <-> detector name correspondance file in the dataset directory
   // or in the user's working directory
   //
   // If not found, we create it.
   //
   // Historical files which were added to the datasets have the name '[classname].names', where
   // [classname] is the name of the specific daughter class used for the dataset.
   //
   // If we generate a new file now, we call it '[dataset].names.dat'
 
   TString filename = Form("%s.names", ClassName());
   fCorrespondanceFile = KVDataSet::GetFullPathToDataSetFile(fDataSet,filename);// using historical name
   if (fCorrespondanceFile != "") return;
 
   // now look for new format filename in dataset directory
   filename.Form("%s.names.dat", fDataSet.Data());
   fCorrespondanceFile = KVDataSet::GetFullPathToDataSetFile(fDataSet,filename);
   if (fCorrespondanceFile != "") return;
 
   // now look for new format filename in KaliVeda working directory
   if(KVBase::SearchKVFile(KVBase::GetWORKDIRFilePath(filename), fCorrespondanceFile))
   {
      Info("GenerateCorrespondanceFile", "Opening correspondence file %s", fCorrespondanceFile.Data());
      return;
   }
 
   // create new file
   fCorrespondanceFile = GetWORKDIRFilePath(filename);
 
   Info("GenerateCorrespondanceFile", "Creating correspondence file %s", fCorrespondanceFile.Data());
   KVEnv env;
 
   fDetectorLabels = "SI1,SI2,CSI";
 
   SetNameOfDetectors(env);
   if (env.GetTable() && env.GetTable()->GetEntries() > 0) {
      env.AddCommentLine(Form("Automatic generated file by %s::GenerateCorrespondanceFile", ClassName()));
      env.AddCommentLine("Make link between geometric ROOT objects and detector names");
      env.WriteFile(fCorrespondanceFile.Data());
   }
   fDetectorLabels = "";
}
 
 
 
 
void KVFAZIA::SetNameOfDetectors(KVEnv& env)
{
   //define the format of detectors name
   // label-index
   // where index = block*100+quartet*10+telescope
   // example :
   // SI1-123 is the Silicon 1 of the block 1, the quartet 2 and the telescope 3
   //
 
   for (Int_t bb = fStartingBlockNumber; bb < fNblocks; bb += 1) {
      for (Int_t qq = 1; qq <= 4; qq += 1) {
         for (Int_t tt = 1; tt <= 4; tt += 1) {
            fDetectorLabels.Begin(",");
            while (!fDetectorLabels.End()) {
               KVString sdet = fDetectorLabels.Next();
               env.SetValue(
                  Form("BLOCK_%d_QUARTET_%d_%s-T%d", bb, qq, sdet.Data(), tt),
                  Form("%s-%d", sdet.Data(), bb * 100 + qq * 10 + tt)
               );
            }
         }
      }
   }
}
 
 
 
 
void KVFAZIA::PerformClosedROOTGeometryOperations()
{
   // Finalise description of array performing all operations which require ROOT
   // geometry to be closed
 
   KVGeoImport imp(gGeoManager, KVMaterial::GetRangeTable(), this, kTRUE);
   if (fImport_Xorg != 0 || fImport_Yorg != 0 || fImport_Zorg != 0) imp.SetOrigin(fImport_Xorg, fImport_Yorg, fImport_Zorg);
   imp.SetDetectorPlugin(GetDataSetEnv<TString>(GetDataSet(), "FAZIADetectorPlugin", "FAZIADetector"));
   imp.SetNameCorrespondanceList(fCorrespondanceFile.Data());
   // any additional structure name formatting definitions
   DefineStructureFormats(imp);
   imp.AddAcceptedDetectorName("SI1-");
   imp.AddAcceptedDetectorName("SI2-");
   imp.AddAcceptedDetectorName("CSI-");
 
   // the following parameters are optimized for a 12-block compact
   // geometry placed at 80cm with rings 1-5 of INDRA removed.
   // make sure that the expected number of detectors get imported!
   imp.ImportGeometry(fImport_dTheta, fImport_dPhi, fImport_ThetaMin, fImport_PhiMin, fImport_ThetaMax, fImport_PhiMax);
 
   SetDetectorThicknesses();
 
   SetIdentifications();
   SetBit(kIsBuilt);
}
 
 
 
 
void KVFAZIA::GetGeometryParameters()
{
   //Called by the Build method
   AbstractMethod("GetGeometryParameters");
}
 
 
 
 
void KVFAZIA::SetTriggerPatternsForDataSet(const TString& dataset)
{
   // Read and set up definitions of trigger patterns for this dataset.
   // These should be given by variables such as:
   //
   //~~~~
   // +[dataset].FAZIA.TriggerPatterns: [name1]
   // [dataset].FAZIA.TriggerPattern.[name1]: [value1]
   // +[dataset].FAZIA.TriggerPatterns: [name2]
   // [dataset].FAZIA.TriggerPattern.[name2]: [value2]
   //~~~~
   //
   // where [name*]='Mult1','Mult1/100','Mult2', etc. (see KVFAZIATrigger for known trigger patterns).
   //
   // and [value*] is the value of the corresponding bit pattern, e.g. if bit '3' (0b100) corresponds to
   // 'Mult2' (i.e. multiplicity >= 2) then this would give
   //
   //~~~~
   // [dataset].FAZIA.TriggerPattern.Mult2: 4
   //~~~~
 
   auto patterns = GetDataSetEnv<KVString>(dataset, "FAZIA.TriggerPatterns");
   if (patterns.Length()) {
      patterns.Begin(" ");
      while (!patterns.End()) {
         auto pattern = patterns.Next(kTRUE);
         uint16_t val = (uint16_t)GetDataSetEnv(dataset, Form("FAZIA.TriggerPattern.%s", pattern.Data()), 0.);
         fTrigger.AddTriggerPattern(pattern, val);
      }
   }
}
 
 
 
 
void KVFAZIA::BuildFAZIA()
{
   //Called by the Build method
   Info("BuildFAZIA", "to be defined in child class ...");
 
}
 
 
 
 
void KVFAZIA::BuildTarget()
{
 
   KVMaterial target_holder_mat("Al");
   new TGeoBBox("TARGET_FRAME", 3., 3., 0.1 / 2.);
   new TGeoEltu("TARGET_HOLE", 2., 2., 0.1 / 2.);
   TGeoCompositeShape* cs = new TGeoCompositeShape("TARGET_FRAME", "TARGET_FRAME - TARGET_HOLE");
   TGeoVolume* target_frame = new TGeoVolume("TARGET_FRAME", cs, target_holder_mat.GetGeoMedium());
   gGeoManager->GetTopVolume()->AddNode(target_frame, 1);
 
   KVTarget* T = GetTarget();
   if (T) {
      KVMaterial* targMat = (KVMaterial*)T->GetLayers()->First();
      TGeoVolume* target = gGeoManager->MakeEltu("TARGET", targMat->GetGeoMedium(), 2., 2., targMat->GetThickness() / 2.);
      gGeoManager->GetTopVolume()->AddNode(target, 1);
   }
}
 
 
 
 
void KVFAZIA::Build(Int_t)
{
   // Build the FAZIA array
   GetGeometryParameters();
   GenerateCorrespondanceFile();
 
   CreateGeoManager();
 
   BuildFAZIA();
 
   if (fBuildTarget)
      BuildTarget();
 
   if (fCloseGeometryNow) {
      gGeoManager->CloseGeometry();
      PerformClosedROOTGeometryOperations();
   }
 
   SetTriggerPatternsForDataSet(GetDataSet());
}
 
 
 
 
void KVFAZIA::GetDetectorEvent(KVDetectorEvent* detev, const TSeqCollection* dets)
{
   // First step in event reconstruction based on current status of detectors in array.
   //
   // Fills the given KVDetectorEvent with the list of all groups which have fired.
   // i.e. loop over all groups of the array and test whether KVGroup::Fired() returns true or false.
   //
   // This can be made more efficient if the detectors which were hit in the event are already known:
   // then their list should be given to argument dets
   //
   // If the list of fired detectors dets is not given, we use the internal fFiredDetectors list
   // which is filled with all hit detectors when raw data is treated in treat_event()
 
   if (!IsSimMode() && !fHandledRawData) {
      //Info("GetDetectorEvent","i didnt handle any data...");
      return;
   }
   if (!dets || !dets->GetEntries()) {
      if (fFiredDetectors.GetEntries()) {
         dets = &fFiredDetectors;
         //Info("GetDetectorEvent", "using internal list");
      }
   }
   if (dets && dets->GetEntries()) {
      TIter next_det(dets);
 
      KVDetector* det = 0;
      while ((det = (KVDetector*)next_det())) {
 
         if (det->GetGroup()->Fired()) detev->AddGroup(det->GetGroup());
 
      }
   }
   else {
      //Info("GetDetectorEvent", "Calling base method");
      KVMultiDetArray::GetDetectorEvent(detev, 0);
   }
}
 
 
 
 
void KVFAZIA::FillDetectorList(KVReconstructedNucleus* rnuc, KVHashList* DetList, const KVString& DetNames)
{
   // Protected method, called when required to fill fDetList with pointers to
   // the detectors whose names are stored in fDetNames.
   // Also set all raw data values in the detectors.
 
   KVFAZIADetector* det = 0;
 
   DetList->Clear();
   DetNames.Begin("/");
   while (!DetNames.End()) {
      KVString sdet = DetNames.Next(kTRUE);
      det = (KVFAZIADetector*)GetDetector(sdet.Data());
      if (!det) {
         det = (KVFAZIADetector*)GetDetector(KVFAZIADetector::GetNewName(sdet.Data()));
      }
 
      if (det) {
         DetList->Add(det);
         // read and set from the particle's parameter list any relevant detector signal values
         // each signal is stored with a name "[detname].[signal name]"
         // except GTTag and DetTag which have the same value for all detectors of the same telescope
         // and so are only stored once with name "DetTag" or "GTTag".
 
         TIter it(&det->GetListOfDetectorSignals());
         KVDetectorSignal* ds;
         while ((ds = (KVDetectorSignal*)it())) {
            if (ds->IsRaw() && !ds->IsExpression())
               // only look for raw data, excluding any expressions based only on raw data
            {
               TString pname = Form("%s.%s", det->GetName(), ds->GetName());
               if (rnuc->GetParameters()->HasParameter(pname))
                  ds->SetValue(rnuc->GetParameters()->GetDoubleValue(pname));
            }
         }
         if (rnuc->GetParameters()->HasParameter("GTTag"))
            det->SetGTTag(rnuc->GetParameters()->GetIntValue("GTTag"));
         if (rnuc->GetParameters()->HasParameter("DetTag"))
            det->SetDetTag(rnuc->GetParameters()->GetIntValue("DetTag"));
      }
   }
}
 
 
 
 
KVGroupReconstructor* KVFAZIA::GetReconstructorForGroup(const KVGroup* g) const
{
   // Specialized group reconstructor for FAZIA
   KVGroupReconstructor* gr(nullptr);
   if (GetGroup(g->GetName())) { // make sure group belongs to us
      if (IsSimMode())
         gr = KVGroupReconstructor::Factory("FAZIA.Filter", g);
      else
         gr = KVGroupReconstructor::Factory("FAZIA", g);
   }
   return gr;
}
 
 
 
 
TString KVFAZIA::GetSignalName(Int_t bb, Int_t qq, Int_t tt, Int_t idsig)
{
 
   TString sname;
   if (bb == 4) {
      if (fDataSet == "FAZIASYM") {
         sname.Form("%s-RUTH", FzDataType_str[idsig]);
      }
      else {
         sname.Form("%s-%d", FzDataType_str[idsig], 100 * bb + 10 * qq + tt);
      }
   }
   else if (bb == 6) {
      if (fDataSet == "FAZIAPRE") {
         sname.Form("%s-RUTH", FzDataType_str[idsig]);
      }
      else {
         sname.Form("%s-%d", FzDataType_str[idsig], 100 * bb + 10 * qq + tt);
      }
   }
   else {
      sname.Form("%s-%d", FzDataType_str[idsig], 100 * bb + 10 * qq + tt);
   }
   return sname;
 
}
 
 
#ifdef WITH_PROTOBUF
 
 
Bool_t KVFAZIA::handle_raw_data_event_protobuf(KVProtobufDataReader& R)
{
   return treat_event(((KVFzDataReader&)R).get_fazia_event());
}
 
 
 
 
Double_t KVFAZIA::TreatEnergy(Int_t sigid, Int_t eid, UInt_t val)
{
   Int_t value = (val << 2);
   value >>= 2;
   Double_t dval = -1.;
   switch (sigid) {
      case DAQ::FzData_FzDataType_QH1:
         if (eid == 0) dval = value / (fQH1risetime * 1e3 / 10.);
         break;
      case DAQ::FzData_FzDataType_I1:
         break;
      case DAQ::FzData_FzDataType_QL1:
         break;
      case DAQ::FzData_FzDataType_Q2:
         if (eid == 0) dval = value / (fQ2risetime * 1e3 / 10.);
         break;
      case DAQ::FzData_FzDataType_I2:
         break;
      case DAQ::FzData_FzDataType_Q3:
         if (eid == 0) dval = value / (fQ3slowrisetime * 1e3 / 10.);
         if (eid == 1) dval = value / (fQ3fastrisetime * 1e3 / 10.);
         break;
   }
   return dval;
}
 
 
 
 
Bool_t KVFAZIA::treat_event(const DAQ::FzEvent& e)
{
   // Read raw data for an event
 
   Bool_t good = kTRUE;
 
   //get info from trigger
   int ts = e.trinfo_size();
   double dt = 0;
   uint64_t tot = 0;
   for (Int_t tr = ts - 1; tr >= 0; tr--) {
      const DAQ::FzTrigInfo& rdtrinfo = e.trinfo(tr);
      uint64_t triggervalue = rdtrinfo.value();
      if (tr == ts - 5)  {
         fReconParameters.SetValue("FAZIA.TRIGPAT", (int)triggervalue);
         SetTriggerPattern((uint16_t)triggervalue);
      }
      else if (tr == ts - 6)  fReconParameters.SetValue64bit("FAZIA.EC", ((triggervalue << 12) + e.ec()));
      else if (tr == ts - 8)  {
         dt = triggervalue / (1e6);
         fReconParameters.SetValue("FAZIA.TRIGRATE.DT", dt);
         double faziats = fReconParameters.GetValue64bit("FAZIA.TS") * 1.e-8;
         if (oldfaziats > 0.) fReconParameters.SetValue("FAZIA.CENTRUM.DT", faziats - oldfaziats);
         oldfaziats = faziats;
      }
      else if (tr == ts - 9)  fReconParameters.SetValue("FAZIA.TRIGRATE.EXT", 1.*triggervalue / dt);
      else if (tr == ts - 10) fReconParameters.SetValue("FAZIA.TRIGRATE.MAN", 1.*triggervalue / dt);
      else if (tr == ts - 11) fReconParameters.SetValue(Form("FAZIA.TRIGRATE.PAT%d", tr - 2), 1.*triggervalue / dt);
      else if (tr == ts - 12) fReconParameters.SetValue(Form("FAZIA.TRIGRATE.PAT%d", tr - 2), 1.*triggervalue / dt);
      else if (tr == ts - 13) fReconParameters.SetValue(Form("FAZIA.TRIGRATE.PAT%d", tr - 2), 1.*triggervalue / dt);
      else if (tr == ts - 14) fReconParameters.SetValue(Form("FAZIA.TRIGRATE.PAT%d", tr - 2), 1.*triggervalue / dt);
      else if (tr == ts - 15) fReconParameters.SetValue(Form("FAZIA.TRIGRATE.PAT%d", tr - 2), 1.*triggervalue / dt);
      else if (tr == ts - 16) fReconParameters.SetValue(Form("FAZIA.TRIGRATE.PAT%d", tr - 2), 1.*triggervalue / dt);
      else if (tr == ts - 17) fReconParameters.SetValue(Form("FAZIA.TRIGRATE.PAT%d", tr - 2), 1.*triggervalue / dt);
      else if (tr == ts - 18) fReconParameters.SetValue(Form("FAZIA.TRIGRATE.PAT%d", tr - 2), 1.*triggervalue / dt);
      else if (tr == ts - 19) {
         fReconParameters.SetValue("FAZIA.TRIGRATE.TOT", 1.*triggervalue / dt);
         tot = triggervalue;
      }
      else if (tr == ts - 20) {
         fReconParameters.SetValue("FAZIA.TRIGRATE.VAL", 1.*triggervalue / dt);
         fReconParameters.SetValue("FAZIA.DEADTIME", 100.*(1. - 1.*triggervalue / tot));
      }
      else {}
   }
 
//   if (tot > 0) fReconParameters.ls();
 
   for (int b = 0; b < e.block_size(); ++b) {
 
      // check block errors
      if (e.block(b).len_error() || e.block(b).crc_error() || (!good)) {
         //Warning("treat_event", "BLOCK LEN OR CRC ERROR B%03d", e.block(b).blkid());
         good = kFALSE;
         break;  //stop iteration on blocks
      }
      int fIdBlk = e.block(b).blkid();
 
      for (int f = 0; f < e.block(b).fee_size(); ++f) {
 
         const DAQ::FzFee& rdfee = e.block(b).fee(f);
 
         for (int h = 0; h < rdfee.hit_size(); ++h) {
 
            const DAQ::FzHit& rdhit = rdfee.hit(h);
            // check fee errors
            if (rdfee.len_error() || rdfee.crc_error() || (!good)) {
               Warning("treat_event", "FEE LEN OR CRC ERROR B%03d-FE%d", e.block(b).blkid(), rdfee.feeid());
               good = kFALSE;
               break;  //stop iteration on hits
            }
            int fIdFee = rdhit.feeid();
            int fIdTel = rdhit.telid();
 
            for (Int_t mm = 0; mm < rdhit.data_size(); mm++) {
               const DAQ::FzData& rdata = rdhit.data(mm);
               int fIdSignal = rdata.type();
 
               int DetTag = rdhit.dettag();
               int GTTag = rdhit.gttag();
               if (DetTag >= 16384 && GTTag < 16384) GTTag += 32768;
 
               //on decompile le HIT
               int fIdQuartet = fQuartet[fIdFee][fIdTel];
               int fIdTelescope = fTelescope[fIdFee][fIdTel];
 
               KVFAZIADetector* det = (KVFAZIADetector*)GetDetector(Form("%s-%d", FzDetector_str[fIdSignal], 100 * fIdBlk + 10 * fIdQuartet + fIdTelescope));
               if (!det) {
                  Error("treat_event", "No detector %s-%d found in FAZIA geometry...", FzDetector_str[fIdSignal], 100 * fIdBlk + 10 * fIdQuartet + fIdTelescope);
                  continue;
               }
               det->SetDetTag(DetTag);
               det->SetGTTag(GTTag);
 
               if (!rdata.has_energy() && !rdata.has_waveform()) {
                  if (FzDataType_str[fIdSignal] != "I2") Warning("treat_event", "[NO DATA] [%s %s]", det->GetName(), FzDataType_str[fIdSignal]);
                  continue;
               }
 
               if (rdata.has_energy()) {
                  const DAQ::Energy& ren = rdata.energy();
                  for (Int_t ee = 0; ee < ren.value_size(); ee++) {
                     Double_t energy = TreatEnergy(fIdSignal, ee, ren.value(ee));
                     auto esig = det->SetFPGAEnergy(fIdSignal, ee, energy);
                     if (esig)
                        fFiredSignals.Add(esig);
                     else
                        Warning("treat_event", "FPGAEnergy signal not found for %s", det->GetName());
                  }
                  fFiredDetectors.Add(det);
               }
               if (rdata.has_baseline()) {
                  Float_t bl = rdata.baseline();
                  auto bsig = det->SetBaseLine(fIdSignal, bl);
                  if (bsig)
                     fFiredSignals.Add(bsig);
                  else
                     Warning("treat_event", "BaseLine signal not found for %s", det->GetName());
               }
               if (rdata.has_waveform()) {
                  const DAQ::Waveform& rwf = rdata.waveform();
                  Int_t supp;
 
                  if (fIdSignal <= 5) {
                     TString sname = GetSignalName(fIdBlk, fIdQuartet, fIdTelescope, fIdSignal);//QH1-123 etc.
                     if (sname == "")
                        Warning("treat_event", "signal name is empty !!! blk=%d qua=%d tel=%d\n", fIdBlk, fIdQuartet, fIdTelescope);
 
                     TGraph sig(rwf.sample_size());
 
                     for (Int_t nn = 0; nn < rwf.sample_size(); nn++) {
                        if (fIdSignal != DAQ::FzData::ADC) {
                           if (rwf.sample(nn) > 8191) {
                              supp = rwf.sample(nn) | 0xFFFFC000;
                           }
                           else {
                              supp = rwf.sample(nn);
                           }
                        }
                        else {
                           supp = rwf.sample(nn);
                        }
                        sig.SetPoint(nn, nn, supp);
                     }
                     det->SetSignal(&sig, sname);
                  }
                  else {
                     if (fIdSignal > 5)
                        Warning("treat_event", "datatype %d>5 - taille = %d\n", fIdSignal, rwf.sample_size());
                  }
               }
            }
         }
      }
   }
 
//   cout << "good=" << good << endl;
//   fFPGAParameters.ls();
//   fSignals.ls();
 
   return good;
}
 
#endif
 
#ifdef WITH_MFM
 
 
Bool_t KVFAZIA::handle_raw_data_event_mfmframe(const MFMCommonFrame& f)
{
   // Treatment of raw data in MFM frames with type MFM_FAZIA_FRAME_TYPE
   // The timestamp is extracted from the frame header and added to fReconParameters
   // in a 64 bit parameter with name "FAZIA.TS"
 
   if (f.GetFrameType() != MFM_FAZIA_FRAME_TYPE) return kFALSE;
   fReconParameters.SetValue64bit("FAZIA.TS", f.GetTimeStamp());
 
#ifdef WITH_PROTOBUF
   DAQ::FzEventSet fazia_set;
   DAQ::FzEvent fazia_event;
   // Parse protobuf data in MFM frame
   if (fazia_set.ParseFromArray(f.GetPointUserData(), ((MFMFaziaFrame&)f).GetEventSize())) {
      // Parsed an event set
      if (fazia_set.ev_size() > 1) {
         Warning("handle_raw_data_event_mfmframe",
                 "Got a FzEventSet from data: cannot handle multiple events at once!");
         return kFALSE;
      }
      return treat_event(fazia_set.ev(0));
   }
   else if (fazia_event.ParseFromArray(f.GetPointUserData(), ((MFMFaziaFrame&)f).GetEventSize())) {
      // Parsed an event
      return treat_event(fazia_event);
   }
#endif
   return kTRUE;
}
 
#endif
 
 
 
void KVFAZIA::CreateCorrespondence()
{
   // set up correspondence between FPGA number/FEE number (from acquisition)
   // and Quartet/Telescope numbers
 
   TString DataFilePath;
   if (!KVBase::SearchKVFile("ElecDetLink.env", DataFilePath, "data")) {
      Error("CreateCorrespondence", "ElecDetLink.env not found");
      return;
   }
   KVEnv DetLink;
   DetLink.ReadFile(DataFilePath, kEnvUser);
   for (int t = 1; t <= 4; t++) {
      for (int q = 1; q <= 4; q++) {
         TString elec = DetLink.GetValue(Form("T%1d-Q%1d", t, q), " ");
         if (!elec.IsWhitespace()) {
            int fee, fpga;
            sscanf(elec.Data(), "FPGA%d-FE%d", &fpga, &fee);
            fQuartet[fee][fpga] = q;
            fTelescope[fee][fpga] = t;
         }
         else {
            Error("CreateCorrespondence", "Problem reading FAZIA ElecDetLink.env file : T%1d-Q%1d = %s", t, q, elec.Data());
         }
      }
   }
}
 
 
 
 
void KVFAZIA::ReadTriggerPatterns(KVExpDB* db)
{
   // Read a file containing runlists for each principal trigger used during an experiment
   //
   // The file should be in TEnv format like so:
   //
   //~~~~
   // Mult1: 100-122,541-1938
   // Mult2: 91-765
   //~~~~
   //
   // where each trigger pattern name must be known and declared to occur during the dataset
   // (see SetTriggerPatternsForDataSet()) and the list of runs are given using KVNumberList syntax.
   //
   // The data is added to the database in a table 'FAZIA.Triggers'.
 
   TString fullpath;
   if (!db->FindCalibFile("Triggers", fullpath)) return;
 
   Info("ReadTriggerPatterns()", "Reading FAZIA triggers used during runs...");
   auto trigs = db->AddTable("FAZIA.Triggers", "Principal triggers used by FAZIA");
 
   KVDBRecord* dbrec = 0;
   TEnv env;
   TEnvRec* rec = 0;
   env.ReadFile(fullpath.Data(), kEnvAll);
   TIter it(env.GetTable());
 
   while ((rec = (TEnvRec*)it.Next())) {
      KVString srec(rec->GetName());
      KVNumberList nl(rec->GetValue());
      dbrec = new KVDBRecord(rec->GetName(), "FAZIA Trigger");
      dbrec->AddKey("Runs", "List of Runs");
      trigs->AddRecord(dbrec);
      db->LinkRecordToRunRange(dbrec, nl);
   }
}
 
 
 
 
void KVFAZIA::SetIDCodeForIDTelescope(KVIDTelescope* idt) const
{
   // Set the FAZIA-specific general identification code for the given telescope
 
   if (idt->InheritsFrom(KVFAZIAIDSiPSA::Class())) {
      if (idt->GetDetector(1)->IsLabelled("SI1")) idt->SetIDCode(IDCodes::ID_SI1_PSA);
      else  idt->SetIDCode(IDCodes::ID_SI2_PSA);
   }
   else if (idt->InheritsFrom(KVFAZIAIDSiSi::Class())) idt->SetIDCode(IDCodes::ID_SI1_SI2);
   else if (idt->InheritsFrom(KVFAZIAIDSiCsI::Class())) idt->SetIDCode(IDCodes::ID_SI2_CSI);
   else if (idt->InheritsFrom(KVFAZIAIDSiSiCsI::Class())) {
      // ID code for these telescopes depends on what detectors the grid's VARY uses
      auto labsY = idt->GetDetectorLabelsForGridCoord("y");
      if (labsY.Contains("SI1") && labsY.Contains("SI2"))
         idt->SetIDCode(IDCodes::ID_SI12_CSI);
      else if (labsY.Contains("SI1"))
         idt->SetIDCode(IDCodes::ID_SI1_CSI);
      else if (labsY.Contains("SI2"))
         idt->SetIDCode(IDCodes::ID_SI2_CSI);
   }
   else if (idt->InheritsFrom(KVFAZIAIDCsI::Class())) idt->SetIDCode(IDCodes::ID_CSI_PSA);
   else {
      Error("SetIDCodeForIDTelescope", "Request for telescope name=%s of unknown class=%s",
            idt->GetName(), idt->IsA()->GetName());
   }
}