//
// Class for trigger analysis.
// Digits are grouped in TRU's (Trigger Units). A TRU consists of 384
-// cells ordered fNTRUPhi x fNTRUEta. The algorithm searches all possible 2x2
+// modules ordered fNTRUPhi x fNTRUEta. The algorithm searches all possible 2x2
// and nxn (n is a multiple of 2) cell combinations per each TRU, adding the
// digits amplitude and finding the maximum. If found, look if it is isolated.
// Maxima are transformed in ADC time samples. Each time bin is compared to the trigger
// //Inside the event loop
// AliEMCALTrigger *tr = new AliEMCALTrigger();//Init Trigger
// tr->SetL0Threshold(100); //Arbitrary threshold values
-// tr->SetL1JetLowPtThreshold(1000);
-// tr->SetL1JetMediumPtThreshold(10000);
-// tr->SetL1JetHighPtThreshold(20000);
+// tr->SetL1GammaLowPtThreshold(1000);
+// tr->SetL1GammaMediumPtThreshold(10000);
+// tr->SetL1GammaHighPtThreshold(20000);
// ...
// tr->Trigger(); //Execute Trigger
// tr->Print(""); //Print results
//*-- Author: Gustavo Conesa & Yves Schutz (IFIC, CERN)
//////////////////////////////////////////////////////////////////////////////
+#include <cassert>
// --- ROOT system ---
+#include <TTree.h>
+#include <TBranch.h>
+#include <TBrowser.h>
+#include <TH2F.h>
// --- ALIROOT system ---
#include "AliRun.h"
ClassImp(AliEMCALTrigger)
+TString AliEMCALTrigger::fgNameOfJetTriggers("EMCALJetTriggerL1");
+
//______________________________________________________________________
AliEMCALTrigger::AliEMCALTrigger()
: AliTriggerDetector(), fGeom(0),
- f2x2MaxAmp(-1), f2x2CellPhi(-1), f2x2CellEta(-1),
+ f2x2MaxAmp(-1), f2x2ModulePhi(-1), f2x2ModuleEta(-1),
f2x2SM(0),
- fnxnMaxAmp(-1), fnxnCellPhi(-1), fnxnCellEta(-1),
+ fnxnMaxAmp(-1), fnxnModulePhi(-1), fnxnModuleEta(-1),
fnxnSM(0),
fADCValuesHighnxn(0),fADCValuesLownxn(0),
fADCValuesHigh2x2(0),fADCValuesLow2x2(0),
fDigitsList(0),
- fL0Threshold(100),fL1JetLowPtThreshold(200),
- fL1JetMediumPtThreshold(500), fL1JetHighPtThreshold(1000),
+ fL0Threshold(100),fL1GammaLowPtThreshold(200),
+ fL1GammaMediumPtThreshold(500), fL1GammaHighPtThreshold(1000),
fPatchSize(1), fIsolPatchSize(1),
f2x2AmpOutOfPatch(-1), fnxnAmpOutOfPatch(-1),
f2x2AmpOutOfPatchThres(100000), fnxnAmpOutOfPatchThres(100000),
fIs2x2Isol(kFALSE), fIsnxnIsol(kFALSE),
- fSimulation(kTRUE), fIsolateInSuperModule(kTRUE)
+ fSimulation(kTRUE), fIsolateInSuperModule(kTRUE), fTimeKey(kFALSE),
+ fAmpTrus(0),fTimeRtrus(0),fAmpSMods(0),
+ fTriggerPosition(6), fTriggerAmplitudes(4),
+ fNJetPatchPhi(3), fNJetPatchEta(3), fNJetThreshold(3), fL1JetThreshold(0), fJetMaxAmp(0),
+ fAmpJetMatrix(0), fJetMatrixE(0), fAmpJetMax(6,1), fVZER0Mult(0.)
{
//ctor
fADCValuesHighnxn = 0x0; //new Int_t[fTimeBins];
fADCValuesLow2x2 = 0x0; //new Int_t[fTimeBins];
SetName("EMCAL");
+ // Define jet threshold - can not change from outside now
+ // fNJetThreshold = 7; // For MB Pythia suppression
+ fNJetThreshold = 10; // Hijing
+ fL1JetThreshold = new Double_t[fNJetThreshold];
+ if(fNJetThreshold == 7) {
+ fL1JetThreshold[0] = 5./0.0153;
+ fL1JetThreshold[1] = 8./0.0153;
+ fL1JetThreshold[2] = 10./0.0153;
+ fL1JetThreshold[3] = 12./0.0153;
+ fL1JetThreshold[4] = 13./0.0153;
+ fL1JetThreshold[5] = 14./0.0153;
+ fL1JetThreshold[6] = 15./0.0153;
+ } else if(fNJetThreshold == 10) {
+ Double_t thGev[10]={5.,8.,10., 12., 13.,14.,15., 17., 20., 25.};
+ for(Int_t i=0; i<fNJetThreshold; i++) fL1JetThreshold[i] = thGev[i]/0.0153;
+ } else {
+ fL1JetThreshold[0] = 5./0.0153;
+ fL1JetThreshold[1] = 10./0.0153;
+ fL1JetThreshold[2] = 15./0.0153;
+ fL1JetThreshold[3] = 20./0.0153;
+ fL1JetThreshold[4] = 25./0.0153;
+ }
+ //
CreateInputs();
-
+
+ fInputs.SetName("TriggersInputs");
//Print("") ;
}
: AliTriggerDetector(trig),
fGeom(trig.fGeom),
f2x2MaxAmp(trig.f2x2MaxAmp),
- f2x2CellPhi(trig.f2x2CellPhi),
- f2x2CellEta(trig.f2x2CellEta),
+ f2x2ModulePhi(trig.f2x2ModulePhi),
+ f2x2ModuleEta(trig.f2x2ModuleEta),
f2x2SM(trig.f2x2SM),
fnxnMaxAmp(trig.fnxnMaxAmp),
- fnxnCellPhi(trig.fnxnCellPhi),
- fnxnCellEta(trig.fnxnCellEta),
+ fnxnModulePhi(trig.fnxnModulePhi),
+ fnxnModuleEta(trig.fnxnModuleEta),
fnxnSM(trig.fnxnSM),
fADCValuesHighnxn(trig.fADCValuesHighnxn),
fADCValuesLownxn(trig.fADCValuesLownxn),
fADCValuesLow2x2(trig.fADCValuesLow2x2),
fDigitsList(trig.fDigitsList),
fL0Threshold(trig.fL0Threshold),
- fL1JetLowPtThreshold(trig.fL1JetLowPtThreshold),
- fL1JetMediumPtThreshold(trig.fL1JetMediumPtThreshold),
- fL1JetHighPtThreshold(trig.fL1JetHighPtThreshold),
+ fL1GammaLowPtThreshold(trig.fL1GammaLowPtThreshold),
+ fL1GammaMediumPtThreshold(trig.fL1GammaMediumPtThreshold),
+ fL1GammaHighPtThreshold(trig.fL1GammaHighPtThreshold),
fPatchSize(trig.fPatchSize),
fIsolPatchSize(trig.fIsolPatchSize),
f2x2AmpOutOfPatch(trig.f2x2AmpOutOfPatch),
fIs2x2Isol(trig.fIs2x2Isol),
fIsnxnIsol(trig.fIsnxnIsol),
fSimulation(trig.fSimulation),
- fIsolateInSuperModule(trig.fIsolateInSuperModule)
+ fIsolateInSuperModule(trig.fIsolateInSuperModule),
+ fTimeKey(trig.fTimeKey),
+ fAmpTrus(trig.fAmpTrus),
+ fTimeRtrus(trig.fTimeRtrus),
+ fAmpSMods(trig.fAmpSMods),
+ fTriggerPosition(trig.fTriggerPosition),
+ fTriggerAmplitudes(trig.fTriggerAmplitudes),
+ fNJetPatchPhi(trig.fNJetPatchPhi),
+ fNJetPatchEta(trig.fNJetPatchEta),
+ fNJetThreshold(trig.fNJetThreshold),
+ fL1JetThreshold(trig.fL1JetThreshold),
+ fJetMaxAmp(trig.fJetMaxAmp),
+ fAmpJetMatrix(trig.fAmpJetMatrix),
+ fJetMatrixE(trig.fJetMatrixE),
+ fAmpJetMax(trig.fAmpJetMax),
+ fVZER0Mult(trig.fVZER0Mult)
{
// cpy ctor
}
AliEMCALTrigger::~AliEMCALTrigger() {
- delete [] fADCValuesHighnxn;
- delete [] fADCValuesLownxn;
- delete [] fADCValuesHigh2x2;
- delete [] fADCValuesLow2x2;
+ if(GetTimeKey()) {
+ delete [] fADCValuesHighnxn;
+ delete [] fADCValuesLownxn;
+ delete [] fADCValuesHigh2x2;
+ delete [] fADCValuesLow2x2;
+ }
+ if(fAmpTrus) {fAmpTrus->Delete(); delete fAmpTrus;}
+ if(fTimeRtrus) {fTimeRtrus->Delete(); delete fTimeRtrus;}
+ if(fAmpSMods) {fAmpSMods->Delete(); delete fAmpSMods;}
+ if(fAmpJetMatrix) delete fAmpJetMatrix;
+ if(fJetMatrixE) delete fJetMatrixE;
+ if(fL1JetThreshold) delete [] fL1JetThreshold;
}
//----------------------------------------------------------------------
// Do not create inputs again!!
if( fInputs.GetEntriesFast() > 0 ) return;
-
- fInputs.AddLast( new AliTriggerInput( "EMCAL_L0", "EMCAL L0", 0x02 ) );
- fInputs.AddLast( new AliTriggerInput( "EMCAL_JetHPt_L1","EMCAL Jet High Pt L1", 0x04 ) );
- fInputs.AddLast( new AliTriggerInput( "EMCAL_JetMPt_L1","EMCAL Jet Medium Pt L1", 0x08 ) );
- fInputs.AddLast( new AliTriggerInput( "EMCAL_JetLPt_L1","EMCAL Jet Low Pt L1", 0x016 ) );
+
+ // Second parameter should be detector name = "EMCAL"
+ TString det("EMCAL"); // Apr 29, 2008
+ fInputs.AddLast( new AliTriggerInput( det+"_L0", det, 0x02) );
+ fInputs.AddLast( new AliTriggerInput( det+"_GammaHPt_L1", det, 0x04 ) );
+ fInputs.AddLast( new AliTriggerInput( det+"_GammaMPt_L1", det, 0x08 ) );
+ fInputs.AddLast( new AliTriggerInput( det+"_GammaLPt_L1", det, 0x016 ) );
+
+ if(fNJetThreshold<=0) return;
+ // Jet Trigger(s)
+ UInt_t level = 0x032;
+ for(Int_t i=0; i<fNJetThreshold; i++ ) {
+ TString name(Form("%s_Th_%2.2i",fgNameOfJetTriggers.Data(),i));
+ TString title("EMCAL Jet triger L1 :"); // unused now
+ // 0.0153 - hard coded now
+ title += Form("Th %i(%5.1f GeV) :", (Int_t)fL1JetThreshold[i], fL1JetThreshold[i] * 0.0153);
+ title += Form("patch %ix%i~(%3.2f(#phi)x%3.2f(#eta)) ",
+ fNJetPatchPhi, fNJetPatchEta, 0.11*(fNJetPatchPhi), 0.11*(fNJetPatchEta));
+ fInputs.AddLast( new AliTriggerInput(name, det, UChar_t(level)) );
+ level *= 2;
+ }
}
//____________________________________________________________________________
Bool_t AliEMCALTrigger::IsPatchIsolated(Int_t iPatchType, const TClonesArray * ampmatrixes, const Int_t iSM, const Int_t mtru, const Float_t maxamp, const Int_t maxphi, const Int_t maxeta) {
- //Calculate if the maximum patch found is isolated, find amplitude around maximum (2x2 or nxn) patch,
- //inside isolation patch . iPatchType = 0 means calculation for 2x2 patch,
- //iPatchType = 1 means calculation for nxn patch.
- //In the next table there is an example of the different options of patch size and isolation patch size:
- // Patch Size (fPatchSize)
- // 0 1 2
- // fIsolPatchSize 2x2 (not overlap) 4x4 (overlapped) 6x6(overlapped) ...
- // 1 4x4 8x8 10x10
- // 2 6x6 12x12 14x14
- // 3 8x8 16x16 18x18
+ // Nov 8, 2007
+ // EMCAL RTU size is 4modules(phi) x 24modules (eta)
+ // So maximum size of patch is 4modules x 4modules (EMCAL L0 trigger).
+ // Calculate if the maximum patch found is isolated, find amplitude around maximum (2x2 or nxn) patch,
+ // inside isolation patch . iPatchType = 0 means calculation for 2x2 patch,
+ // iPatchType = 1 means calculation for nxn patch.
+ // In the next table there is an example of the different options of patch size and isolation patch size:
+ // Patch Size (fPatchSize)
+ // 0 1
+ // fIsolPatchSize 0 2x2 (not overlap) 4x4 (overlapped)
+ // 1 4x4 8x8
Bool_t b = kFALSE;
- Float_t amp = 0;
- //Get matrix of TRU or Module with maximum amplitude patch.
- Int_t itru = mtru + iSM * fGeom->GetNTRU(); //number of tru, min 0 max 8*5.
+ // Get matrix of TRU or Module with maximum amplitude patch.
+ Int_t itru = mtru + iSM * fGeom->GetNTRU(); //number of tru, min 0 max 3*12=36.
TMatrixD * ampmatrix = 0x0;
Int_t colborder = 0;
Int_t rowborder = 0;
+ static int keyPrint = 0;
+ if(keyPrint) printf(" IsPatchIsolated : iSM %i mtru %i itru %i maxphi %i maxeta %i \n", iSM, mtru, itru, maxphi, maxeta);
- if(fIsolateInSuperModule){
+ if(fIsolateInSuperModule){ // ?
ampmatrix = dynamic_cast<TMatrixD *>(ampmatrixes->At(iSM)) ;
- rowborder = fGeom->GetNPhi()*2;
- colborder = fGeom->GetNZ()*2;
+ rowborder = fGeom->GetNPhi();
+ colborder = fGeom->GetNZ();
AliDebug(2,"Isolate trigger in Module");
- }
- else{
+ } else{
ampmatrix = dynamic_cast<TMatrixD *>(ampmatrixes->At(itru)) ;
- rowborder = fGeom->GetNCellsInTRUPhi();
- colborder = fGeom->GetNCellsInTRUEta();
+ rowborder = fGeom->GetNModulesInTRUPhi();
+ colborder = fGeom->GetNModulesInTRUEta();
AliDebug(2,"Isolate trigger in TRU");
}
+ if(iSM>9) rowborder /= 2; // half size in phi
- //Define patch cells
- Int_t isolcells = fIsolPatchSize*(1+iPatchType);
- Int_t ipatchcells = 2*(1+fPatchSize*iPatchType);
- Int_t minrow = maxphi - isolcells;
- Int_t mincol = maxeta - isolcells;
- Int_t maxrow = maxphi + isolcells + ipatchcells;
- Int_t maxcol = maxeta + isolcells + ipatchcells;
-
- if (minrow < 0)
- minrow = 0;
- if (mincol < 0)
- mincol = 0;
- if (maxrow > rowborder)
- maxrow = rowborder;
- if (maxcol > colborder)
- maxcol = colborder;
+ //Define patch modules - what is this ??
+ Int_t isolmodules = fIsolPatchSize*(1+iPatchType);
+ Int_t ipatchmodules = 2*(1+fPatchSize*iPatchType);
+ Int_t minrow = maxphi - isolmodules;
+ Int_t mincol = maxeta - isolmodules;
+ Int_t maxrow = maxphi + isolmodules + ipatchmodules;
+ Int_t maxcol = maxeta + isolmodules + ipatchmodules;
+
+ minrow = minrow<0?0 :minrow;
+ mincol = mincol<0?0 :mincol;
+
+ maxrow = maxrow>rowborder?rowborder :maxrow;
+ maxcol = maxcol>colborder?colborder :maxcol;
- AliDebug(2,Form("Number of added Isol Cells %d, Patch Size %d",isolcells, ipatchcells));
- AliDebug(2,Form("Patch: minrow %d, maxrow %d, mincol %d, maxcol %d",minrow,maxrow,mincol,maxcol));
+ //printf("%s\n",Form("Number of added Isol Modules %d, Patch Size %d",isolmodules, ipatchmodules));
+ //printf("%s\n",Form("Patch: minrow %d, maxrow %d, mincol %d, maxcol %d",minrow,maxrow,mincol,maxcol));
+ // AliDebug(2,Form("Number of added Isol Modules %d, Patch Size %d",isolmodules, ipatchmodules));
+ //AliDebug(2,Form("Patch: minrow %d, maxrow %d, mincol %d, maxcol %d",minrow,maxrow,mincol,maxcol));
//Add amplitudes in all isolation patch
+ Float_t amp = 0.;
for(Int_t irow = minrow ; irow < maxrow; irow ++)
for(Int_t icol = mincol ; icol < maxcol ; icol ++)
amp += (*ampmatrix)(irow,icol);
AliDebug(2,Form("Type %d, Maximum amplitude %f, patch+isol square %f",iPatchType, maxamp, amp));
if(amp < maxamp){
- AliError(Form("Bad sum: Type %d, Maximum amplitude %f, patch+isol square %f",iPatchType, maxamp, amp));
+ // AliError(Form("Bad sum: Type %d, Maximum amplitude %f, patch+isol square %f",iPatchType, maxamp, amp));
+ // ampmatrix->Print();
return kFALSE;
- }
- else
+ } else {
amp-=maxamp; //Calculate energy in isolation patch that do not comes from maximum patch.
+ }
AliDebug(2, Form("Maximum amplitude %f, Out of patch %f",maxamp, amp));
//Fill isolation amplitude data member and say if patch is isolated.
if(iPatchType == 0){ //2x2 case
f2x2AmpOutOfPatch = amp;
- if(amp < f2x2AmpOutOfPatchThres)
- b=kTRUE;
- }
- else if(iPatchType == 1){ //nxn case
+ if(amp < f2x2AmpOutOfPatchThres) b=kTRUE;
+ } else if(iPatchType == 1){ //nxn case
fnxnAmpOutOfPatch = amp;
- if(amp < fnxnAmpOutOfPatchThres)
- b=kTRUE;
+ if(amp < fnxnAmpOutOfPatchThres) b=kTRUE;
}
+ if(keyPrint) printf(" IsPatchIsolated - OUT \n");
+
return b;
}
+/*
//____________________________________________________________________________
void AliEMCALTrigger::MakeSlidingCell(const TClonesArray * amptrus, const TClonesArray * timeRtrus, const Int_t isupermod,TMatrixD &max2, TMatrixD &maxn){
- //Sums energy of all possible 2x2 (L0) and nxn (L1) cells per each TRU.
- //Fast signal in the experiment is given by 2x2 cells,
- //for this reason we loop inside the TRU cells by 2.
+ //Sums energy of all possible 2x2 (L0) and nxn (L1) modules per each TRU.
+ //Fast signal in the experiment is given by 2x2 modules,
+ //for this reason we loop inside the TRU modules by 2.
//Declare and initialize variables
Int_t nCellsPhi = fGeom->GetNCellsInTRUPhi();
}
}
}
+*/
+//____________________________________________________________________________
+void AliEMCALTrigger::MakeSlidingTowers(const TClonesArray * amptrus, const TClonesArray * timeRtrus,
+const Int_t isupermod,TMatrixD &max2, TMatrixD &maxn){
+
+ // Output from module (2x2 cells from one module)
+ Int_t nModulesPhi = fGeom->GetNModulesInTRUPhi(); // now 4 modules (3 div in phi)
+ if(isupermod > 9)
+ nModulesPhi = nModulesPhi / 2 ; // Half size SM. Not Final.
+ //
+ Int_t nModulesEta = fGeom->GetNModulesInTRUEta(); // now 24 modules (no division in eta)
+ Int_t nTRU = fGeom->GetNTRU();
+ static int keyPrint = 0;
+ if(keyPrint) printf("MakeSlidingTowers : nTRU %i nModulesPhi %i nModulesEta %i ",
+ nTRU, nModulesPhi, nModulesEta );
+
+ Float_t amp2 = 0 ;
+ Float_t ampn = 0 ;
+ for(Int_t i = 0; i < 4; i++){
+ for(Int_t j = 0; j < nTRU; j++){
+ ampmax2(i,j) = ampmaxn(i,j) = -1;
+ }
+ }
+
+ // Create matrix that will contain 2x2 amplitude sums
+ // used to calculate the nxn sums
+ TMatrixD tru2x2(nModulesPhi/2,nModulesEta/2);
+
+ // Loop over all TRUS in a supermodule
+ for(Int_t itru = 0 + isupermod * nTRU ; itru < (isupermod+1)*nTRU ; itru++) {
+ TMatrixD * amptru = dynamic_cast<TMatrixD *>(amptrus->At(itru)) ;
+ TMatrixD * timeRtru = dynamic_cast<TMatrixD *>(timeRtrus->At(itru)) ;
+ Int_t mtru = itru - isupermod*nTRU ; // Number of TRU in Supermodule !!
+
+ // Sliding 2x2, add 2x2 amplitudes (NOT OVERLAP)
+ for(Int_t irow = 0 ; irow < nModulesPhi; irow +=2){
+ for(Int_t icol = 0 ; icol < nModulesEta ; icol +=2){
+ amp2 = (*amptru)(irow,icol) +(*amptru)(irow+1,icol)+
+ (*amptru)(irow,icol+1)+(*amptru)(irow+1,icol+1);
+
+ //Fill matrix with added 2x2 towers for use in nxn sums
+ tru2x2(irow/2,icol/2) = amp2 ;
+ //Select 2x2 maximum sums to select L0
+ if(amp2 > ampmax2(0,mtru)){
+ ampmax2(0,mtru) = amp2 ;
+ ampmax2(1,mtru) = irow;
+ ampmax2(2,mtru) = icol;
+ }
+ }
+ }
+
+ ampmax2(3,mtru) = 0.;
+ if(GetTimeKey()) {
+ // Find most recent time in the selected 2x2 towers
+ Int_t row2 = static_cast <Int_t> (ampmax2(1,mtru));
+ Int_t col2 = static_cast <Int_t> (ampmax2(2,mtru));
+ for(Int_t i = 0; i<2; i++){
+ for(Int_t j = 0; j<2; j++){
+ if((*amptru)(row2+i,col2+j) > 0 && (*timeRtru)(row2+i,col2+j)> 0){
+ if((*timeRtru)(row2+i,col2+j) > ampmax2(3,mtru) )
+ ampmax2(3,mtru) = (*timeRtru)(row2+i,col2+j); // max time
+ }
+ }
+ }
+ }
+
+ //Sliding nxn, add nxn amplitudes (OVERLAP)
+ if(fPatchSize > 0){
+ for(Int_t irow = 0 ; irow < nModulesPhi/2; irow++){
+ for(Int_t icol = 0 ; icol < nModulesEta/2; icol++){
+ ampn = 0;
+ if( (irow+fPatchSize) < nModulesPhi/2 && (icol+fPatchSize) < nModulesEta/2){ //Avoid exit the TRU
+ for(Int_t i = 0 ; i <= fPatchSize ; i++)
+ for(Int_t j = 0 ; j <= fPatchSize ; j++)
+ ampn += tru2x2(irow+i,icol+j);
+ //Select nxn maximum sums to select L1
+ if(ampn > ampmaxn(0,mtru)){
+ ampmaxn(0,mtru) = ampn ;
+ ampmaxn(1,mtru) = irow;
+ ampmaxn(2,mtru) = icol;
+ }
+ }
+ }
+ }
+
+ ampmaxn(3,mtru) = 0.; // Was 1 , I don't know why
+ if(GetTimeKey()) {
+ //Find most recent time in selected nxn cell
+ Int_t rown = static_cast <Int_t> (ampmaxn(1,mtru));
+ Int_t coln = static_cast <Int_t> (ampmaxn(2,mtru));
+ for(Int_t i = 0; i<4*fPatchSize; i++){
+ for(Int_t j = 0; j<4*fPatchSize; j++){
+ if( (rown+i) < nModulesPhi && (coln+j) < nModulesEta){//Avoid exit the TRU
+ if((*amptru)(rown+i,coln+j) > 0 && (*timeRtru)(rown+i,coln+j)> 0){
+ if((*timeRtru)(rown+i,coln+j) > ampmaxn(3,mtru) )
+ ampmaxn(3,mtru) = (*timeRtru)(rown+i,coln+j); // max time
+ }
+ }
+ }
+ }
+ }
+ } else { // copy 2x2 to nxn
+ ampmaxn(0,mtru) = ampmax2(0,mtru);
+ ampmaxn(1,mtru) = ampmax2(1,mtru);
+ ampmaxn(2,mtru) = ampmax2(2,mtru);
+ ampmaxn(3,mtru) = ampmax2(3,mtru);
+ }
+ }
+ if(keyPrint) printf(" : MakeSlidingTowers -OUt \n");
+}
//____________________________________________________________________________
void AliEMCALTrigger::Print(const Option_t * opt) const
if(! opt)
return;
AliTriggerInput* in = 0x0 ;
+ printf( " fSimulation %i (input option) : #digits %i\n", fSimulation, fDigitsList->GetEntries());
+ printf( " fTimeKey %i \n ", fTimeKey);
printf( " Maximum Amplitude after Sliding Cell, \n") ;
printf( " -2x2 cells sum (not overlapped): %10.2f, in Super Module %d\n",
f2x2MaxAmp,f2x2SM) ;
- printf( " -2x2 from row %d to row %d and from column %d to column %d\n", f2x2CellPhi, f2x2CellPhi+2, f2x2CellEta, f2x2CellEta+2) ;
+ printf( " -2x2 from row %d to row %d and from column %d to column %d\n", f2x2ModulePhi, f2x2ModulePhi+2, f2x2ModuleEta, f2x2ModuleEta+2) ;
printf( " -2x2 Isolation Patch %d x %d, Amplitude out of 2x2 patch is %f, threshold %f, Isolated? %d \n",
2*fIsolPatchSize+2, 2*fIsolPatchSize+2, f2x2AmpOutOfPatch, f2x2AmpOutOfPatchThres,static_cast<Int_t> (fIs2x2Isol)) ;
if(fPatchSize > 0){
printf( " Patch Size, n x n: %d x %d cells\n",2*(fPatchSize+1), 2*(fPatchSize+1));
printf( " -nxn cells sum (overlapped) : %10.2f, in Super Module %d\n",
fnxnMaxAmp,fnxnSM) ;
- printf( " -nxn from row %d to row %d and from column %d to column %d\n", fnxnCellPhi, fnxnCellPhi+4*fPatchSize, fnxnCellEta, fnxnCellEta+4*fPatchSize) ;
+ printf( " -nxn from row %d to row %d and from column %d to column %d\n", fnxnModulePhi, fnxnModulePhi+4*fPatchSize, fnxnModuleEta, fnxnModuleEta+4*fPatchSize) ;
printf( " -nxn Isolation Patch %d x %d, Amplitude out of nxn patch is %f, threshold %f, Isolated? %d \n",
4*fIsolPatchSize+2*(fPatchSize+1),4*fIsolPatchSize+2*(fPatchSize+1) , fnxnAmpOutOfPatch, fnxnAmpOutOfPatchThres,static_cast<Int_t> (fIsnxnIsol) ) ;
}
if(in->GetValue())
printf( " *** EMCAL LO is set ***\n") ;
- printf( " Jet Low Pt Threshold for L1 %10.2f\n",
- fL1JetLowPtThreshold) ;
- in = (AliTriggerInput*)fInputs.FindObject( "EMCAL_JetLPt_L1" );
+ printf( " Gamma Low Pt Threshold for L1 %10.2f\n",
+ fL1GammaLowPtThreshold) ;
+ in = (AliTriggerInput*)fInputs.FindObject( "EMCAL_GammaLPt_L1" );
if(in->GetValue())
- printf( " *** EMCAL Jet Low Pt for L1 is set ***\n") ;
+ printf( " *** EMCAL Gamma Low Pt for L1 is set ***\n") ;
- printf( " Jet Medium Pt Threshold for L1 %10.2f\n",
- fL1JetMediumPtThreshold) ;
- in = (AliTriggerInput*) fInputs.FindObject( "EMCAL_JetMPt_L1" );
+ printf( " Gamma Medium Pt Threshold for L1 %10.2f\n",
+ fL1GammaMediumPtThreshold) ;
+ in = (AliTriggerInput*) fInputs.FindObject( "EMCAL_GammaMPt_L1" );
if(in->GetValue())
- printf( " *** EMCAL Jet Medium Pt for L1 is set ***\n") ;
+ printf( " *** EMCAL Gamma Medium Pt for L1 is set ***\n") ;
- printf( " Jet High Pt Threshold for L1 %10.2f\n",
- fL1JetHighPtThreshold) ;
- in = (AliTriggerInput*) fInputs.FindObject( "EMCAL_JetHPt_L1" );
+ printf( " Gamma High Pt Threshold for L1 %10.2f\n",
+ fL1GammaHighPtThreshold) ;
+ in = (AliTriggerInput*) fInputs.FindObject( "EMCAL_GammaHPt_L1" );
if(in->GetValue())
- printf( " *** EMCAL Jet High Pt for L1 is set ***\n") ;
+ printf( " *** EMCAL Gamma High Pt for L1 is set ***\n") ;
}
const TMatrixD &max2,
const TMatrixD &maxn)
{
-
//Checks the 2x2 and nxn maximum amplitude per each TRU and
//compares with the different L0 and L1 triggers thresholds
Float_t max2[] = {-1,-1,-1,-1} ;
//Set max of 2x2 amplitudes and select L0 trigger
if(max2[0] > f2x2MaxAmp ){
+ // if(max2[0] > 5) printf(" L0 : iSM %i: max2[0] %5.0f : max2[3] %5.0f (maxtimeR2) \n",
+ // iSM, max2[0], max2[3]);
f2x2MaxAmp = max2[0] ;
f2x2SM = iSM ;
maxtimeR2 = max2[3] ;
- fGeom->GetCellPhiEtaIndexInSModuleFromTRUIndex(mtru2,
+ fGeom->GetModulePhiEtaIndexInSModuleFromTRUIndex(mtru2,
static_cast<Int_t>(max2[1]),
static_cast<Int_t>(max2[2]),
- f2x2CellPhi,f2x2CellEta) ;
+ f2x2ModulePhi,f2x2ModuleEta);
//Isolated patch?
if(fIsolateInSuperModule)
- fIs2x2Isol = IsPatchIsolated(0, ampmatrix, iSM, mtru2, f2x2MaxAmp, f2x2CellPhi,f2x2CellEta) ;
+ fIs2x2Isol = IsPatchIsolated(0, ampmatrix, iSM, mtru2, f2x2MaxAmp, f2x2ModulePhi,f2x2ModuleEta) ;
else
fIs2x2Isol = IsPatchIsolated(0, ampmatrix, iSM, mtru2, f2x2MaxAmp, static_cast<Int_t>(max2[1]), static_cast<Int_t>(max2[2])) ;
+ if(GetTimeKey()) {
//Transform digit amplitude in Raw Samples
- if (fADCValuesLow2x2 == 0) {
- fADCValuesLow2x2 = new Int_t[nTimeBins];
- fADCValuesHigh2x2 = new Int_t[nTimeBins];
- }
- rawUtil.RawSampledResponse(maxtimeR2, f2x2MaxAmp, fADCValuesHigh2x2, fADCValuesLow2x2) ;
+ if (fADCValuesLow2x2 == 0) {
+ fADCValuesLow2x2 = new Int_t[nTimeBins];
+ fADCValuesHigh2x2 = new Int_t[nTimeBins];
+ }
+ //printf(" maxtimeR2 %12.5e (1)\n", maxtimeR2);
+ rawUtil.RawSampledResponse(maxtimeR2 * AliEMCALRawUtils::GetRawFormatTimeBin(),
+ f2x2MaxAmp, fADCValuesHigh2x2, fADCValuesLow2x2) ;
- //Set Trigger Inputs, compare ADC time bins until threshold is attained
- //Set L0
- for(Int_t i = 0 ; i < nTimeBins ; i++){
- if(fADCValuesHigh2x2[i] >= fL0Threshold || fADCValuesLow2x2[i] >= fL0Threshold){
- SetInput("EMCAL_L0") ;
- break;
+ // Set Trigger Inputs, compare ADC time bins until threshold is attained
+ // Set L0
+ for(Int_t i = 0 ; i < nTimeBins ; i++){
+ // printf(" fADCValuesHigh2x2[%i] %i : %i \n", i, fADCValuesHigh2x2[i], fADCValuesLow2x2[i]);
+ if(fADCValuesHigh2x2[i] >= fL0Threshold || fADCValuesLow2x2[i] >= fL0Threshold){
+ SetInput("EMCAL_L0") ;
+ break;
+ }
+ }
+ } else {
+ // Nov 5 - no analysis of time information
+ if(f2x2MaxAmp >= fL0Threshold) { // should add the low amp too
+ SetInput("EMCAL_L0");
}
}
}
fnxnMaxAmp = maxn[0] ;
fnxnSM = iSM ;
maxtimeRn = maxn[3] ;
- fGeom->GetCellPhiEtaIndexInSModuleFromTRUIndex(mtrun,
+ fGeom->GetModulePhiEtaIndexInSModuleFromTRUIndex(mtrun,
static_cast<Int_t>(maxn[1]),
static_cast<Int_t>(maxn[2]),
- fnxnCellPhi,fnxnCellEta) ;
+ fnxnModulePhi,fnxnModuleEta) ;
//Isolated patch?
if(fIsolateInSuperModule)
- fIsnxnIsol = IsPatchIsolated(1, ampmatrix, iSM, mtrun, fnxnMaxAmp, fnxnCellPhi, fnxnCellEta) ;
+ fIsnxnIsol = IsPatchIsolated(1, ampmatrix, iSM, mtrun, fnxnMaxAmp, fnxnModulePhi, fnxnModuleEta) ;
else
fIsnxnIsol = IsPatchIsolated(1, ampmatrix, iSM, mtrun, fnxnMaxAmp, static_cast<Int_t>(maxn[1]), static_cast<Int_t>(maxn[2])) ;
+ if(GetTimeKey()) {
//Transform digit amplitude in Raw Samples
- if (fADCValuesLownxn == 0) {
- fADCValuesHighnxn = new Int_t[nTimeBins];
- fADCValuesLownxn = new Int_t[nTimeBins];
- }
- rawUtil.RawSampledResponse(maxtimeRn, fnxnMaxAmp, fADCValuesHighnxn, fADCValuesLownxn) ;
+ if (fADCValuesLownxn == 0) {
+ fADCValuesHighnxn = new Int_t[nTimeBins];
+ fADCValuesLownxn = new Int_t[nTimeBins];
+ }
+ rawUtil.RawSampledResponse(maxtimeRn * AliEMCALRawUtils::GetRawFormatTimeBin(),
+ fnxnMaxAmp, fADCValuesHighnxn, fADCValuesLownxn) ;
//Set Trigger Inputs, compare ADC time bins until threshold is attained
//SetL1 Low
- for(Int_t i = 0 ; i < nTimeBins ; i++){
- if(fADCValuesHighnxn[i] >= fL1JetLowPtThreshold || fADCValuesLownxn[i] >= fL1JetLowPtThreshold){
- SetInput("EMCAL_JetLPt_L1") ;
- break;
+ for(Int_t i = 0 ; i < nTimeBins ; i++){
+ if(fADCValuesHighnxn[i] >= fL1GammaLowPtThreshold || fADCValuesLownxn[i] >= fL1GammaLowPtThreshold){
+ SetInput("EMCAL_GammaLPt_L1") ;
+ break;
+ }
}
- }
//SetL1 Medium
- for(Int_t i = 0 ; i < nTimeBins ; i++){
- if(fADCValuesHighnxn[i] >= fL1JetMediumPtThreshold || fADCValuesLownxn[i] >= fL1JetMediumPtThreshold){
- SetInput("EMCAL_JetMPt_L1") ;
- break;
+ for(Int_t i = 0 ; i < nTimeBins ; i++){
+ if(fADCValuesHighnxn[i] >= fL1GammaMediumPtThreshold || fADCValuesLownxn[i] >= fL1GammaMediumPtThreshold){
+ SetInput("EMCAL_GammaMPt_L1") ;
+ break;
+ }
}
- }
//SetL1 High
- for(Int_t i = 0 ; i < nTimeBins ; i++){
- if(fADCValuesHighnxn[i] >= fL1JetHighPtThreshold || fADCValuesLownxn[i] >= fL1JetHighPtThreshold){
- SetInput("EMCAL_JetHPt_L1") ;
- break;
+ for(Int_t i = 0 ; i < nTimeBins ; i++){
+ if(fADCValuesHighnxn[i] >= fL1GammaHighPtThreshold || fADCValuesLownxn[i] >= fL1GammaHighPtThreshold){
+ SetInput("EMCAL_GammaHPt_L1") ;
+ break;
+ }
+ }
+ } else {
+ // Nov 5 - no analysis of time information
+ if(fnxnMaxAmp >= fL1GammaLowPtThreshold) { // should add the low amp too
+ SetInput("EMCAL_GammaLPt_L1") ; //SetL1 Low
+ }
+ if(fnxnMaxAmp >= fL1GammaMediumPtThreshold) { // should add the low amp too
+ SetInput("EMCAL_GammaMPt_L1") ; //SetL1 Medium
+ }
+ if(fnxnMaxAmp >= fL1GammaHighPtThreshold) { // should add the low amp too
+ SetInput("EMCAL_GammaHPt_L1") ; //SetL1 High
}
}
- }
+ }
}
//____________________________________________________________________________
// is maintained for the last modules but decision not taken. If different,
// then this must be changed. Also fill a matrix with all amplitudes in supermodule for isolation studies.
- //Initilize and declare variables
- //List of TRU matrices initialized to 0.
- Int_t nPhi = fGeom->GetNPhi();
- Int_t nZ = fGeom->GetNZ();
- Int_t nTRU = fGeom->GetNTRU();
- Int_t nTRUPhi = fGeom->GetNTRUPhi();
- Int_t nCellsPhi = fGeom->GetNCellsInTRUPhi();
- Int_t nCellsPhi2 = fGeom->GetNCellsInTRUPhi();
- Int_t nCellsEta = fGeom->GetNCellsInTRUEta();
+// Initilize and declare variables
+// List of TRU matrices initialized to 0.
+// printf("<I> AliEMCALTrigger::FillTRU() started : # digits %i\n", digits->GetEntriesFast());
+
+// Nov 2, 2007.
+// One input per EMCAL module so size of matrix is reduced by 4 (2x2 division case)
+
+ Int_t nPhi = fGeom->GetNPhi();
+ Int_t nZ = fGeom->GetNZ();
+ Int_t nTRU = fGeom->GetNTRU();
+ // Int_t nTRUPhi = fGeom->GetNTRUPhi();
+ Int_t nModulesPhi = fGeom->GetNModulesInTRUPhi();
+ Int_t nModulesPhi2 = fGeom->GetNModulesInTRUPhi();
+ Int_t nModulesEta = fGeom->GetNModulesInTRUEta();
+ // printf("<I> AliEMCALTrigger::FillTRU() nTRU %i nTRUPhi %i : nModulesPhi %i nModulesEta %i \n",
+ // nTRU, nTRUPhi, nModulesPhi, nModulesEta);
Int_t id = -1;
Float_t amp = -1;
Int_t nIeta = -1;
Int_t iphi = -1;
Int_t ieta = -1;
+ // iphim, ietam - module indexes in SM
+ Int_t iphim = -1;
+ Int_t ietam = -1;
//List of TRU matrices initialized to 0.
Int_t nSup = fGeom->GetNumberOfSuperModules();
for(Int_t k = 0; k < nTRU*nSup; k++){
- TMatrixD amptrus(nCellsPhi,nCellsEta) ;
- TMatrixD timeRtrus(nCellsPhi,nCellsEta) ;
+ TMatrixD amptrus(nModulesPhi,nModulesEta) ;
+ TMatrixD timeRtrus(nModulesPhi,nModulesEta) ;
// Do we need to initialise? I think TMatrixD does it by itself...
- for(Int_t i = 0; i < nCellsPhi; i++){
- for(Int_t j = 0; j < nCellsEta; j++){
+ for(Int_t i = 0; i < nModulesPhi; i++){
+ for(Int_t j = 0; j < nModulesEta; j++){
amptrus(i,j) = 0.0;
timeRtrus(i,j) = 0.0;
}
new((*timeRmatrix)[k]) TMatrixD(timeRtrus) ;
}
- //List of Modules matrices initialized to 0.
+ // List of Modules matrices initialized to 0.
for(Int_t k = 0; k < nSup ; k++){
- TMatrixD ampsmods( nPhi*2, nZ*2) ;
- for(Int_t i = 0; i < nPhi*2; i++){
- for(Int_t j = 0; j < nZ*2; j++){
+ int mphi = nPhi;
+ // if(nSup>9) mphi = nPhi/2; // the same size
+ TMatrixD ampsmods( mphi, nZ);
+ for(Int_t i = 0; i < mphi; i++){
+ for(Int_t j = 0; j < nZ; j++){
ampsmods(i,j) = 0.0;
}
}
- new((*ampmatrixsmod)[k]) TMatrixD(ampsmods) ;
+ new((*ampmatrixsmod)[k]) TMatrixD(ampsmods) ;
}
AliEMCALDigit * dig ;
for(Int_t idig = 0 ; idig < digits->GetEntriesFast() ; idig++){
dig = dynamic_cast<AliEMCALDigit *>(digits->At(idig)) ;
- amp = dig->GetAmp() ; // Energy of the digit (arbitrary units)
- id = dig->GetId() ; // Id label of the cell
- timeR = dig->GetTimeR() ; // Earliest time of the digit
-
- //Get eta and phi cell position in supermodule
+ amp = Float_t(dig->GetAmp()); // Energy of the digit (arbitrary units)
+ id = dig->GetId() ; // Id label of the cell
+ timeR = dig->GetTimeR() ; // Earliest time of the digit
+ if(amp<=0.0) printf("<I> AliEMCALTrigger::FillTRU : id %i amp %f \n", id, amp);
+ // printf(" FILLTRU : timeR %10.5e time %10.5e : amp %10.5e \n", timeR, dig->GetTime(), amp);
+ // Get eta and phi cell position in supermodule
Bool_t bCell = fGeom->GetCellIndex(id, iSupMod, nModule, nIphi, nIeta) ;
if(!bCell)
- Error("FillTRU","Wrong cell id number") ;
+ Error("FillTRU","%i Wrong cell id number %i ", idig, id) ;
fGeom->GetCellPhiEtaIndexInSModule(iSupMod,nModule,nIphi, nIeta,iphi,ieta);
+ // iphim, ietam - module indexes in SM
+ fGeom->GetModuleIndexesFromCellIndexesInSModule(iSupMod,iphi,ieta, iphim, ietam, nModule);
+ //if(iSupMod >9)
+ //printf("iSupMod %i nModule %i iphi %i ieta %i iphim %i ietam %i \n",
+ //iSupMod,nModule, iphi, ieta, iphim, ietam);
- //Check to which TRU in the supermodule belongs the cell.
- //Supermodules are divided in a TRU matrix of dimension
- //(fNTRUPhi,fNTRUEta).
- //Each TRU is a cell matrix of dimension (nCellsPhi,nCellsEta)
+ // Check to which TRU in the supermodule belongs the cell.
+ // Supermodules are divided in a TRU matrix of dimension
+ // (fNTRUPhi,fNTRUEta).
+ // Each TRU is a cell matrix of dimension (nModulesPhi,nModulesEta)
- //First calculate the row and column in the supermodule
- //of the TRU to which the cell belongs.
- Int_t col = ieta/nCellsEta;
- Int_t row = iphi/nCellsPhi;
- if(iSupMod > 9)
- row = iphi/nCellsPhi2;
+ // First calculate the row and column in the supermodule
+ // of the TRU to which the cell belongs.
+ Int_t row = iphim / nModulesPhi;
+ Int_t col = ietam / nModulesEta;
//Calculate label number of the TRU
- Int_t itru = row + col*nTRUPhi + iSupMod*nTRU ;
+ Int_t itru = fGeom->GetAbsTRUNumberFromNumberInSm(row, col, iSupMod);
//Fill TRU matrix with cell values
TMatrixD * amptrus = dynamic_cast<TMatrixD *>(ampmatrix->At(itru)) ;
TMatrixD * timeRtrus = dynamic_cast<TMatrixD *>(timeRmatrix->At(itru)) ;
- //Calculate row and column of the cell inside the TRU with number itru
- Int_t irow = iphi - row * nCellsPhi;
+ //Calculate row and column of the module inside the TRU with number itru
+ Int_t irow = iphim - row * nModulesPhi;
if(iSupMod > 9)
- irow = iphi - row * nCellsPhi2;
- Int_t icol = ieta - col * nCellsEta;
-
- (*amptrus)(irow,icol) = amp ;
- (*timeRtrus)(irow,icol) = timeR ;
+ irow = iphim - row * nModulesPhi2; // size of matrix the same
+ Int_t icol = ietam - col * nModulesEta;
+ (*amptrus)(irow,icol) += amp ;
+ if((*timeRtrus)(irow,icol) <0.0 || (*timeRtrus)(irow,icol) <= timeR){ // ??
+ (*timeRtrus)(irow,icol) = timeR ;
+ }
+ //printf(" ieta %i iphi %i iSM %i || col %i row %i : itru %i -> amp %f\n",
+ // ieta, iphi, iSupMod, col, row, itru, amp);
//####################SUPERMODULE MATRIX ##################
TMatrixD * ampsmods = dynamic_cast<TMatrixD *>(ampmatrixsmod->At(iSupMod)) ;
- (*ampsmods)(iphi,ieta) = amp ;
-
+ (*ampsmods)(iphim,ietam) += amp ;
+ // printf(" id %i iphim %i ietam %i SM %i : irow %i icol %i itru %i : amp %6.0f\n",
+ //id, iphim, ietam, iSupMod, irow, icol, itru, amp);
}
+ //assert(0);
+ //printf("<I> AliEMCALTrigger::FillTRU() is ended \n");
}
//____________________________________________________________________________
void AliEMCALTrigger::Trigger()
{
+ TH1::AddDirectory(0);
//Main Method to select triggers.
AliRunLoader *runLoader = AliRunLoader::GetRunLoader();
- AliEMCALLoader *emcalLoader = dynamic_cast<AliEMCALLoader*>
- (runLoader->GetDetectorLoader("EMCAL"));
+ AliEMCALLoader *emcalLoader = 0;
+ if(runLoader) {
+ emcalLoader = dynamic_cast<AliEMCALLoader*>(runLoader->GetDetectorLoader("EMCAL"));
+ }
//Load EMCAL Geometry
- if (runLoader->GetAliRun() && runLoader->GetAliRun()->GetDetector("EMCAL"))
+ if (runLoader && runLoader->GetAliRun() && runLoader->GetAliRun()->GetDetector("EMCAL"))
fGeom = dynamic_cast<AliEMCAL*>(runLoader->GetAliRun()->GetDetector("EMCAL"))->GetGeometry();
- if (fGeom == 0)
- fGeom = AliEMCALGeometry::GetInstance(AliEMCALGeometry::GetDefaulGeometryName());
+
+ if (fGeom == 0)
+ fGeom = AliEMCALGeometry::GetInstance(AliEMCALGeometry::GetDefaultGeometryName());
if (fGeom==0)
AliFatal("Did not get geometry from EMCALLoader");
//Define parameters
Int_t nSuperModules = fGeom->GetNumberOfSuperModules() ; //12 SM in EMCAL
- Int_t nTRU = fGeom->GetNTRU(); //3 TRU per super module
+ Int_t nTRU = fGeom->GetNTRU(); // 3 TRU per super module
//Intialize data members each time the trigger is called in event loop
- f2x2MaxAmp = -1; f2x2CellPhi = -1; f2x2CellEta = -1;
- fnxnMaxAmp = -1; fnxnCellPhi = -1; fnxnCellEta = -1;
+ f2x2MaxAmp = -1; f2x2ModulePhi = -1; f2x2ModuleEta = -1;
+ fnxnMaxAmp = -1; fnxnModulePhi = -1; fnxnModuleEta = -1;
- //Take the digits list if simulation
- if(fSimulation){
+ // Take the digits list if simulation
+ if(fSimulation && runLoader && emcalLoader){ // works than run seperate macros
runLoader->LoadDigits("EMCAL");
fDigitsList = emcalLoader->Digits() ;
+ runLoader->LoadSDigits("EMCAL");
}
+ // Digits list should be set by method SetDigitsList(TClonesArray * digits)
if(!fDigitsList)
AliFatal("Digits not found !") ;
//Take the digits list
- //Fill TRU Matrix
- TClonesArray * amptrus = new TClonesArray("TMatrixD",1000);
- TClonesArray * ampsmods = new TClonesArray("TMatrixD",1000);
- TClonesArray * timeRtrus = new TClonesArray("TMatrixD",1000);
+ // Delete old if unzero
+ if(fAmpTrus) {fAmpTrus->Delete(); delete fAmpTrus;}
+ if(fTimeRtrus) {fTimeRtrus->Delete(); delete fTimeRtrus;}
+ if(fAmpSMods) {fAmpSMods->Delete(); delete fAmpSMods;}
+ // Fill TRU and SM matrix
+ fAmpTrus = new TClonesArray("TMatrixD",nTRU);
+ fAmpTrus->SetName("AmpTrus");
+ fTimeRtrus = new TClonesArray("TMatrixD",nTRU);
+ fTimeRtrus->SetName("TimeRtrus");
+ fAmpSMods = new TClonesArray("TMatrixD",nSuperModules);
+ fAmpSMods->SetName("AmpSMods");
- FillTRU(fDigitsList, amptrus, ampsmods, timeRtrus) ;
+ FillTRU(fDigitsList, fAmpTrus, fAmpSMods, fTimeRtrus);
+
+ // Jet staff - only one case, no fredom here
+ if(fGeom->GetNEtaSubOfTRU() == 6) {
+ if(fAmpJetMatrix) {delete fAmpJetMatrix; fAmpJetMatrix=0;}
+ if(fJetMatrixE) {delete fJetMatrixE; fJetMatrixE=0;}
+
+ fAmpJetMatrix = new TMatrixD(17,12); // 17-phi(row), 12-eta(col)
+ fJetMatrixE = new TH2F("fJetMatrixE"," E of max patch in (#phi,#eta)",
+ 17, 80.*TMath::DegToRad(), (180.+20.*2/3.)*TMath::DegToRad(), 12, -0.7, 0.7);
+ for(Int_t row=0; row<fAmpJetMatrix->GetNrows(); row++) {
+ for(Int_t col=0; col<fAmpJetMatrix->GetNcols(); col++) {
+ (*fAmpJetMatrix)(row,col) = 0.;
+ }
+ }
+ FillJetMatrixFromSMs(fAmpSMods, fAmpJetMatrix, fGeom);
+ }
+ if(!CheckConsistentOfMatrixes()) assert(0);
- //Do Cell Sliding and select Trigger
- //Initialize varible that will contain maximum amplitudes and
- //its corresponding cell position in eta and phi, and time.
- TMatrixD ampmax2(4,nTRU) ;
+ // Do Tower Sliding and select Trigger
+ // Initialize varible that will contain maximum amplitudes and
+ // its corresponding tower position in eta and phi, and time.
+ TMatrixD ampmax2(4,nTRU) ; // 0-max amp, 1-irow, 2-icol, 3-timeR
TMatrixD ampmaxn(4,nTRU) ;
for(Int_t iSM = 0 ; iSM < nSuperModules ; iSM++) {
//Do 2x2 and nxn sums, select maximums.
- MakeSlidingCell(amptrus, timeRtrus, iSM, ampmax2, ampmaxn);
+
+ MakeSlidingTowers(fAmpTrus, fTimeRtrus, iSM, ampmax2, ampmaxn);
- //Set the trigger
- if(fIsolateInSuperModule)
- SetTriggers(ampsmods,iSM,ampmax2,ampmaxn) ;
+ // Set the trigger
+ if(fIsolateInSuperModule) // here some discripency between tru and SM
+ SetTriggers(fAmpSMods,iSM,ampmax2,ampmaxn) ;
if(!fIsolateInSuperModule)
- SetTriggers(amptrus,iSM,ampmax2,ampmaxn) ;
+ SetTriggers(fAmpTrus,iSM,ampmax2,ampmaxn) ;
}
- amptrus->Delete();
- delete amptrus; amptrus = 0;
- ampsmods->Delete();
- delete ampsmods; ampsmods = 0;
- timeRtrus->Delete();
- delete timeRtrus; timeRtrus = 0;
+ // Do patch sliding and select Jet Trigger
+ // 0-max amp-meanFromVZERO(if), 1-irow, 2-icol, 3-timeR,
+ // 4-max amp , 5-meanFromVZERO (Nov 25, 2007)
+ // fAmpJetMax(6,1)
+ MakeSlidingPatch((*fAmpJetMatrix), fNJetPatchPhi, fAmpJetMax); // no timing information here
+
//Print();
+ // fDigitsList = 0;
+}
+
+void AliEMCALTrigger::GetTriggerInfo(TArrayF &triggerPosition, TArrayF &triggerAmplitudes)
+{
+ // Template - should be defined; Nov 5, 2007
+ triggerPosition[0] = 0.;
+ triggerAmplitudes[0] = 0.;
+}
+
+void AliEMCALTrigger::FillJetMatrixFromSMs(TClonesArray *ampmatrixsmod, TMatrixD* jetMat, AliEMCALGeometry *g)
+{
+ // Nov 5, 2007
+ // Fill matrix for jet trigger from SM matrixes of modules
+ //
+ static int keyPrint = 0;
+
+ if(ampmatrixsmod==0 || jetMat==0 || g==0) return;
+ Double_t amp = 0.0, ampSum=0.0;
+ Int_t nEtaModSum = g->GetNZ() / g->GetNEtaSubOfTRU(); // should be 4
+ Int_t nPhiModSum = g->GetNPhi() / g->GetNTRUPhi(); // should be 4
+
+ if(keyPrint) printf("%s",Form(" AliEMCALTrigger::FillJetMatrixFromSMs | nEtaModSum %i : nPhiModSum %i \n",
+ nEtaModSum, nPhiModSum));
+ Int_t jrow=0, jcol=0; // indexes of jet matrix
+ Int_t nEtaSM=0, nPhiSM=0;
+ for(Int_t iSM=0; iSM<ampmatrixsmod->GetEntries(); iSM++) {
+ TMatrixD * ampsmods = dynamic_cast<TMatrixD *>(ampmatrixsmod->At(iSM));
+ Int_t nrow = ampsmods->GetNrows();
+ Int_t ncol = ampsmods->GetNcols();
+ //printf("%s",Form(" ######## SM %i : nrow %i : ncol %i ##### \n", iSM, nrow, ncol));
+ for(Int_t row=0; row<nrow; row++) {
+ for(Int_t col=0; col<ncol; col++) {
+ amp = (*ampsmods)(row,col);
+ nPhiSM = iSM / 2;
+ nEtaSM = iSM % 2;
+ if (amp>0.0) {
+ if(keyPrint) printf("%s",Form(" ** nPhiSm %i : nEtaSM %i : row %2.2i : col %2.2i -> ",
+ nPhiSM, nEtaSM, row, col));
+ if(nEtaSM == 0) { // positive Z
+ jrow = 3*nPhiSM + row/nPhiModSum;
+ jcol = 6 + col / nEtaModSum;
+ } else { // negative Z
+ if(iSM<=9) jrow = 3*nPhiSM + 2 - row/nPhiModSum;
+ else jrow = 3*nPhiSM + 1 - row/nPhiModSum; // half size
+ jcol = 5 - col / nEtaModSum;
+ }
+ if(keyPrint) printf("%s",Form(" jrow %2.2i : jcol %2.2i : amp %f (jetMat) \n", jrow, jcol, amp));
+
+ (*jetMat)(jrow,jcol) += amp;
+ ampSum += amp; // For controling
+ } else if(amp<0.0) {
+ printf("%s",Form(" jrow %2.2i : jcol %2.2i : amp %f (jetMat: amp<0) \n", jrow, jcol, amp));
+ assert(0);
+ }
+ }
+ }
+ } // cycle on SM
+ if(ampSum <= 0.0) Warning("FillJetMatrixFromSMs","ampSum %f (<=0.0) ", ampSum);
+}
+
+void AliEMCALTrigger::MakeSlidingPatch(const TMatrixD &jm, const Int_t nPatchSize, TMatrixD &JetMax)
+{
+ // Sliding patch : nPatchSize x nPatchSize (OVERLAP)
+ static int keyPrint = 0;
+ if(keyPrint) printf(" AliEMCALTrigger::MakeSlidingPatch() was started \n");
+ Double_t ampCur = 0.0, e=0.0;
+ ampJetMax(0,0) = 0.0;
+ ampJetMax(3,0) = 0.0; // unused now
+ ampJetMax(4,0) = ampJetMax(5,0) = 0.0;
+ for(Int_t row=0; row<fAmpJetMatrix->GetNrows(); row ++) {
+ for(Int_t col=0; col<fAmpJetMatrix->GetNcols(); col++) {
+ ampCur = 0.;
+ // check on patch size
+ if( (row+nPatchSize-1) < fAmpJetMatrix->GetNrows() && (col+nPatchSize-1) < fAmpJetMatrix->GetNcols()){
+ for(Int_t i = 0 ; i < nPatchSize ; i++) {
+ for(Int_t j = 0 ; j < nPatchSize ; j++) {
+ ampCur += jm(row+i, col+j);
+ }
+ } // end cycle on patch
+ if(ampCur > ampJetMax(0,0)){
+ ampJetMax(0,0) = ampCur;
+ ampJetMax(1,0) = row;
+ ampJetMax(2,0) = col;
+ }
+ } // check on patch size
+ }
+ }
+ if(keyPrint) printf(" ampJetMax %i row %2i->%2i col %2i->%2i \n",
+ Int_t(ampJetMax(0,0)), Int_t(ampJetMax(1,0)), Int_t(ampJetMax(1,0))+nPatchSize-1,
+ Int_t(ampJetMax(2,0)), Int_t(ampJetMax(2,0))+nPatchSize-1);
+
+ Double_t eCorrJetMatrix=0.0;
+ if(fVZER0Mult > 0.0) {
+ // Correct patch energy (adc) and jet patch matrix energy
+ Double_t meanAmpBG = GetMeanEmcalPatchEnergy(Int_t(fVZER0Mult), nPatchSize)/0.0153;
+ ampJetMax(4,0) = ampJetMax(0,0);
+ ampJetMax(5,0) = meanAmpBG;
+
+ Double_t eCorr = ampJetMax(0,0) - meanAmpBG;
+ printf(" ampJetMax(0,0) %f meanAmpBG %f eCorr %f : ampJetMax(4,0) %f \n",
+ ampJetMax(0,0), meanAmpBG, eCorr, ampJetMax(5,0));
+ ampJetMax(0,0) = eCorr;
+ // --
+ eCorrJetMatrix = GetMeanEmcalEnergy(Int_t(fVZER0Mult)) / 208.;
+ }
+ // Fill patch energy matrix
+ for(int row=Int_t(ampJetMax(1,0)); row<Int_t(ampJetMax(1,0))+nPatchSize; row++) {
+ for(int col=Int_t(ampJetMax(2,0)); col<Int_t(ampJetMax(2,0))+nPatchSize; col++) {
+ e = Double_t(jm(row,col)*0.0153); // 0.0153 - hard coded now
+ if(eCorrJetMatrix > 0.0) { // BG subtraction case
+ e -= eCorrJetMatrix;
+ fJetMatrixE->SetBinContent(row+1, col+1, e);
+ } else if(e > 0.0) {
+ fJetMatrixE->SetBinContent(row+1, col+1, e);
+ }
+ }
+ }
+ // PrintJetMatrix();
+ // Set the jet trigger(s), multiple threshold now, Nov 19,2007
+ for(Int_t i=0; i<fNJetThreshold; i++ ) {
+ if(ampJetMax(0,0) >= fL1JetThreshold[i]) {
+ SetInput((Form("%s_Th%2i", fgNameOfJetTriggers.Data(),i)));
+ }
+ }
+}
+
+Double_t AliEMCALTrigger::GetEmcalSumAmp() const
+{
+ // Return sum of amplidutes from EMCal
+ // Used calibration coefficeint for transition to energy
+ return fAmpJetMatrix >0 ?fAmpJetMatrix->Sum() :0.0;
+}
+
+
+void AliEMCALTrigger::PrintJetMatrix() const
+{
+ // fAmpJetMatrix : (17,12); // 17-phi(row), 12-eta(col)
+ if(fAmpJetMatrix == 0) return;
+
+ printf("\n #### jetMatrix : (%i,%i) ##### \n ",
+ fAmpJetMatrix->GetNrows(), fAmpJetMatrix->GetNcols());
+ PrintMatrix(*fAmpJetMatrix);
+}
+
+void AliEMCALTrigger::PrintAmpTruMatrix(Int_t ind) const
+{
+ TMatrixD * tru = dynamic_cast<TMatrixD *>(fAmpTrus->At(ind));
+ if(tru == 0) return;
+ printf("\n #### Amp TRU matrix(%i) : (%i,%i) ##### \n ",
+ ind, tru->GetNrows(), tru->GetNcols());
+ PrintMatrix(*tru);
+}
+
+void AliEMCALTrigger::PrintAmpSmMatrix(Int_t ind) const
+{
+ TMatrixD * sm = dynamic_cast<TMatrixD *>(fAmpSMods->At(ind));
+ if(sm == 0) return;
+ printf("\n #### Amp SM matrix(%i) : (%i,%i) ##### \n ",
+ ind, sm->GetNrows(), sm->GetNcols());
+ PrintMatrix(*sm);
+}
+
+void AliEMCALTrigger::PrintMatrix(const TMatrixD &mat) const
+{
+ for(Int_t col=0; col<mat.GetNcols(); col++) printf(" %3i ", col);
+ printf("\n -- \n");
+ for(Int_t row=0; row<mat.GetNrows(); row++) {
+ printf(" row:%2i ", row);
+ for(Int_t col=0; col<mat.GetNcols(); col++) {
+ printf(" %4i", (Int_t)mat(row,col));
+ }
+ printf("\n");
+ }
+}
+
+Bool_t AliEMCALTrigger::CheckConsistentOfMatrixes(const Int_t pri)
+{
+ Double_t sumSM = 0.0, smCur=0.0;
+ Double_t sumTru=0.0, sumTruInSM = 0.0, truSum=0.0;
+ // Bool_t key = kTRUE;
+
+ for(Int_t i=0; i<fAmpSMods->GetEntries(); i++) {
+ TMatrixD * sm = dynamic_cast<TMatrixD *>(fAmpSMods->At(i));
+ if(sm) {
+ smCur = sm->Sum();
+ sumSM += smCur;
+
+ sumTruInSM = 0.0;
+ for(Int_t itru=0; itru<3; itru++) { // Cycle on tru inside SM
+ Int_t ind = 3*i + itru;
+ TMatrixD *tru = dynamic_cast<TMatrixD *>(fAmpTrus->At(ind));
+ if(tru) {
+ truSum = tru->Sum();
+ sumTruInSM += truSum;
+ }
+ }
+ sumTru += sumTruInSM;
+
+ if(sumTruInSM != smCur) {
+ printf(" sm %i : smCur %f -> sumTruInSM %f \n", i, smCur, sumTruInSM);
+ return kFALSE;
+ }
+ }
+ }
+ Double_t sumJetMat = fAmpJetMatrix->Sum();
+ if(pri || sumSM != sumTru || sumSM != sumJetMat)
+ printf(" sumSM %f : sumTru %f : sumJetMat %f \n", sumSM, sumTru, sumJetMat);
+ if(sumSM != sumTru || sumSM != sumJetMat) return kFALSE;
+ else return kTRUE;
+}
+
+
+void AliEMCALTrigger::Browse(TBrowser* b)
+{
+ if(&fInputs) b->Add(&fInputs);
+ if(fAmpTrus) b->Add(fAmpTrus);
+ if(fTimeRtrus) b->Add(fTimeRtrus);
+ if(fAmpSMods) b->Add(fAmpSMods);
+ if(fAmpJetMatrix) b->Add(fAmpJetMatrix);
+ if(fJetMatrixE) b->Add(fJetMatrixE);
+ // if(c) b->Add(c);
}
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff