/* $Id$ */
+/*
+ February 2008
+
+ The code has been heavily modified so that now the RAW data is
+ "expanded" for each sector and stored in a big signal array. Then a
+ simple version of the code in AliTPCclustererMI is used to identify
+ the local maxima and these are then used for QA. This gives a better
+ estimate of the charge (both max and total) and also limits the
+ effect of noise.
+
+ Implementation:
+
+ In Update the RAW signals >= 3 ADC channels are stored in the arrays.
+
+ There are 3 arrays:
+ Float_t** fAllBins 2d array [row][bin(pad, time)] ADC signal
+ Int_t** fAllSigBins 2d array [row][signal#] bin(with signal)
+ Int_t* fAllNSigBins; 1d array [row] Nsignals
+
+ This is done sector by sector.
+
+ When data from a new sector is encountered, the method
+ FindLocalMaxima is called on the data from the previous sector, and
+ the calibration/data objects are updated with the "cluster"
+ info. Finally the arrays are cleared.
+
+ The requirements for a local maxima is:
+ Charge in bin is >= 5 ADC channels.
+ Charge in bin is larger than all the 8 neighboring bins.
+ At least one of the two pad neighbors has a signal.
+ At least one of the two time neighbors has a signal.
+
+ Before accessing the data it is expected that the Analyse method is
+ called. This normalizes some of the data objects to per event or per
+ cluster.
+ If more data is passed to the class after Analyse has been called
+ the normalization is reversed and Analyse has to be called again.
+*/
+
// stl includes
#include <iostream>
#include <TRandom.h>
#include <TDirectory.h>
#include <TFile.h>
+#include <TError.h>
//AliRoot includes
#include "AliRawReader.h"
#include "AliRawReaderRoot.h"
//date
#include "event.h"
#include "AliTPCCalPad.h"
+#include "AliTPCPreprocessorOnline.h"
//header file
#include "AliTPCdataQA.h"
ClassImp(AliTPCdataQA)
-AliTPCdataQA::AliTPCdataQA() : /*FOLD00*/
- TObject(),
+AliTPCdataQA::AliTPCdataQA() : /*FOLD00*/
+ TH1F("TPCRAW","TPCRAW",100,0,100),
fFirstTimeBin(60),
fLastTimeBin(1000),
fAdcMin(1),
fAdcMax(100),
fOldRCUformat(kTRUE),
- fROC(AliTPCROC::Instance()),
fMapping(NULL),
fPedestal(0),
fNoise(0),
+ fNLocalMaxima(0),
fMaxCharge(0),
fMeanCharge(0),
fNoThreshold(0),
- fOverThreshold0(0),
- fOverThreshold5(0),
+ fNTimeBins(0),
+ fNPads(0),
+ fTimePosition(0),
fOverThreshold10(0),
fOverThreshold20(0),
fOverThreshold30(0),
- fEventCounter(0)
+ fEventCounter(0),
+ fIsAnalysed(kFALSE),
+ fAllBins(0),
+ fAllSigBins(0),
+ fAllNSigBins(0),
+ fRowsMax(0),
+ fPadsMax(0),
+ fTimeBinsMax(0)
{
//
// default constructor
//
-
- fSectorLast = -1;
- fRowLast = 0;
- fPadLast = 0;
- fTimeBinLast = 0;
- fSignalLast = 0;
- fNAboveThreshold = 0;
}
//_____________________________________________________________________
AliTPCdataQA::AliTPCdataQA(const AliTPCdataQA &ped) : /*FOLD00*/
- TObject(ped),
+ TH1F(ped),
fFirstTimeBin(ped.GetFirstTimeBin()),
fLastTimeBin(ped.GetLastTimeBin()),
fAdcMin(ped.GetAdcMin()),
fAdcMax(ped.GetAdcMax()),
- fOldRCUformat(ped.fOldRCUformat),
- fROC(AliTPCROC::Instance()),
- fMapping(NULL)
+ fOldRCUformat(ped.GetOldRCUformat()),
+ fMapping(NULL),
+ fPedestal(0),
+ fNoise(0),
+ fNLocalMaxima(0),
+ fMaxCharge(0),
+ fMeanCharge(0),
+ fNoThreshold(0),
+ fNTimeBins(0),
+ fNPads(0),
+ fTimePosition(0),
+ fOverThreshold10(0),
+ fOverThreshold20(0),
+ fOverThreshold30(0),
+ fEventCounter(ped.GetEventCounter()),
+ fIsAnalysed(ped.GetIsAnalysed()),
+ fAllBins(0),
+ fAllSigBins(0),
+ fAllNSigBins(0),
+ fRowsMax(0),
+ fPadsMax(0),
+ fTimeBinsMax(0)
{
//
// copy constructor
//
-
+ if(ped.GetNLocalMaxima())
+ fNLocalMaxima = new AliTPCCalPad(*ped.GetNLocalMaxima());
+ if(ped.GetMaxCharge())
+ fMaxCharge = new AliTPCCalPad(*ped.GetMaxCharge());
+ if(ped.GetMeanCharge())
+ fMeanCharge = new AliTPCCalPad(*ped.GetMeanCharge());
+ if(ped.GetNoThreshold())
+ fNoThreshold = new AliTPCCalPad(*ped.GetNoThreshold());
+ if(ped.GetNTimeBins())
+ fNTimeBins = new AliTPCCalPad(*ped.GetNTimeBins());
+ if(ped.GetNPads())
+ fNPads = new AliTPCCalPad(*ped.GetNPads());
+ if(ped.GetTimePosition())
+ fTimePosition = new AliTPCCalPad(*ped.GetTimePosition());
+ if(ped.GetOverThreshold10())
+ fOverThreshold10 = new AliTPCCalPad(*ped.GetOverThreshold10());
+ if(ped.GetOverThreshold20())
+ fOverThreshold20 = new AliTPCCalPad(*ped.GetOverThreshold20());
+ if(ped.GetOverThreshold30())
+ fOverThreshold30 = new AliTPCCalPad(*ped.GetOverThreshold30());
}
//
// do not delete fMapping, because we do not own it.
-
+ // do not delete fMapping, because we do not own it.
+ // do not delete fNoise and fPedestal, because we do not own them.
+
+ delete fNLocalMaxima;
+ delete fMaxCharge;
+ delete fMeanCharge;
+ delete fNoThreshold;
+ delete fNTimeBins;
+ delete fNPads;
+ delete fTimePosition;
+ delete fOverThreshold10;
+ delete fOverThreshold20;
+ delete fOverThreshold30;
+
+ for (Int_t iRow = 0; iRow < fRowsMax; iRow++) {
+ delete [] fAllBins[iRow];
+ delete [] fAllSigBins[iRow];
+ }
+ delete [] fAllBins;
+ delete [] fAllSigBins;
+ delete [] fAllNSigBins;
}
-
-
-
//_____________________________________________________________________
Bool_t AliTPCdataQA::ProcessEventFast(AliTPCRawStreamFast *rawStreamFast)
{
// Event Processing loop - AliTPCRawStream
//
Bool_t withInput = kFALSE;
+ Int_t nSignals = 0;
+ Int_t lastSector = -1;
while ( rawStreamFast->NextDDL() ){
while ( rawStreamFast->NextChannel() ){
- Int_t isector = rawStreamFast->GetSector(); // current sector
- Int_t iRow = rawStreamFast->GetRow(); // current row
- Int_t iPad = rawStreamFast->GetPad(); // current pad
-
- while ( rawStreamFast->NextBunch() ){
- Int_t startTbin = (Int_t)rawStreamFast->GetStartTimeBin();
- Int_t endTbin = (Int_t)rawStreamFast->GetEndTimeBin();
-
- for (Int_t iTimeBin = startTbin; iTimeBin < endTbin; iTimeBin++){
- Float_t signal=(Float_t)rawStreamFast->GetSignals()[iTimeBin-startTbin];
- Update(isector,iRow,iPad,iTimeBin+1,signal);
- withInput = kTRUE;
- }
+
+ Int_t iSector = rawStreamFast->GetSector(); // current sector
+ Int_t iRow = rawStreamFast->GetRow(); // current row
+ Int_t iPad = rawStreamFast->GetPad(); // current pad
+ // Call local maxima finder if the data is in a new sector
+ if(iSector != lastSector) {
+
+ if(nSignals>0)
+ FindLocalMaxima(lastSector);
+
+ CleanArrays();
+ lastSector = iSector;
+ nSignals = 0;
+ }
+
+ while ( rawStreamFast->NextBunch() ){
+ Int_t startTbin = (Int_t)rawStreamFast->GetStartTimeBin();
+ Int_t endTbin = (Int_t)rawStreamFast->GetEndTimeBin();
+
+ for (Int_t iTimeBin = startTbin; iTimeBin < endTbin; iTimeBin++){
+ Float_t signal = rawStreamFast->GetSignals()[iTimeBin-startTbin];
+ nSignals += Update(iSector,iRow,iPad,iTimeBin+1,signal);
+ withInput = kTRUE;
}
+ }
}
}
-
+
return withInput;
}
//_____________________________________________________________________
//
// Event processing loop - AliRawReader
//
- fEventCounter++;
- fSectorLast = -1;
AliTPCRawStreamFast *rawStreamFast = new AliTPCRawStreamFast(rawReader, (AliAltroMapping**)fMapping);
Bool_t res=ProcessEventFast(rawStreamFast);
+ if(res)
+ fEventCounter++; // only increment event counter if there is TPC data
+ // otherwise Analyse (called in QA) fails
+
delete rawStreamFast;
return res;
}
rawStream->SetOldRCUFormat(fOldRCUformat);
Bool_t withInput = kFALSE;
+ Int_t nSignals = 0;
+ Int_t lastSector = -1;
while (rawStream->Next()) {
Int_t iPad = rawStream->GetPad(); // current pad
Int_t iTimeBin = rawStream->GetTime(); // current time bin
Float_t signal = rawStream->GetSignal(); // current ADC signal
+
+ // Call local maxima finder if the data is in a new sector
+ if(iSector != lastSector) {
+
+ if(nSignals>0)
+ FindLocalMaxima(lastSector);
+
+ CleanArrays();
+ lastSector = iSector;
+ nSignals = 0;
+ }
- Update(iSector,iRow,iPad,iTimeBin,signal);
- withInput = kTRUE;
+ // Sometimes iRow==-1 if there is problems to read the data
+ if(iRow>=0) {
+ nSignals += Update(iSector,iRow,iPad,iTimeBin,signal);
+ withInput = kTRUE;
+ }
}
return withInput;
//
// if fMapping is NULL the rawstream will crate its own mapping
- fEventCounter++;
- fSectorLast = -1;
AliTPCRawStream rawStream(rawReader, (AliAltroMapping**)fMapping);
rawReader->Select("TPC");
- return ProcessEvent(&rawStream);
+ Bool_t res = ProcessEvent(&rawStream);
+
+ if(res)
+ fEventCounter++; // only increment event counter if there is TPC data
+ // otherwise Analyse (called in QA) fails
+ return res;
}
//_____________________________________________________________________
-Int_t AliTPCdataQA::Update(const Int_t icsector, /*FOLD00*/
- const Int_t icRow,
- const Int_t icPad,
- const Int_t icTimeBin,
- const Float_t csignal)
+Int_t AliTPCdataQA::Update(const Int_t iSector, /*FOLD00*/
+ const Int_t iRow,
+ const Int_t iPad,
+ const Int_t iTimeBin,
+ Float_t signal)
{
//
// Signal filling method
//
- if (icTimeBin<fFirstTimeBin) return 0;
- if (icTimeBin>fLastTimeBin) return 0;
-
+
+ //
+ // Define the calibration objects the first time Update is called
+ // NB! This has to be done first even if the data is rejected by the time
+ // cut to make sure that the objects are available in Analyse
+ //
+ if (!fNLocalMaxima) fNLocalMaxima = new AliTPCCalPad("NLocalMaxima","NLocalMaxima");
if (!fMaxCharge) fMaxCharge = new AliTPCCalPad("MaxCharge","MaxCharge");
if (!fMeanCharge) fMeanCharge = new AliTPCCalPad("MeanCharge","MeanCharge");
if (!fNoThreshold) fNoThreshold = new AliTPCCalPad("NoThreshold","NoThreshold");
- if (!fOverThreshold0) fOverThreshold0 = new AliTPCCalPad("OverThreshold0","OverThreshold0");
- if (!fOverThreshold5) fOverThreshold5 = new AliTPCCalPad("OverThreshold5","OverThreshold5");
+ if (!fNTimeBins) fNTimeBins = new AliTPCCalPad("NTimeBins","NTimeBins");
+ if (!fNPads) fNPads = new AliTPCCalPad("NPads","NPads");
+ if (!fTimePosition) fTimePosition = new AliTPCCalPad("TimePosition","TimePosition");
if (!fOverThreshold10) fOverThreshold10 = new AliTPCCalPad("OverThreshold10","OverThreshold10");
if (!fOverThreshold20) fOverThreshold20 = new AliTPCCalPad("OverThreshold20","OverThreshold20");
if (!fOverThreshold30) fOverThreshold30 = new AliTPCCalPad("OverThreshold30","OverThreshold30");
- //
+ // Make the arrays for expanding the data
- Int_t signal = Int_t(csignal);
+ if (!fAllBins)
+ MakeArrays();
+ //
+ // If Analyse has been previously called we need now to denormalize the data
+ // as more data is coming
+ //
+ if(fIsAnalysed == kTRUE) {
+
+ const Int_t nTimeBins = fLastTimeBin - fFirstTimeBin +1;
+ const Float_t denormalization = Float_t(fEventCounter * nTimeBins);
+ fNoThreshold->Multiply(denormalization);
+
+ fMeanCharge->Multiply(fNLocalMaxima);
+ fMaxCharge->Multiply(fNLocalMaxima);
+ fNTimeBins->Multiply(fNLocalMaxima);
+ fNPads->Multiply(fNLocalMaxima);
+ fTimePosition->Multiply(fNLocalMaxima);
+ fIsAnalysed = kFALSE;
+ }
+
+ //
+ // TimeBin cut
+ //
+ if (iTimeBin<fFirstTimeBin) return 0;
+ if (iTimeBin>fLastTimeBin) return 0;
+
// if pedestal calibrations are loaded subtract pedestals
if(fPedestal) {
- Int_t pedestal = Int_t(fPedestal->GetCalROC(icsector)->GetValue(icRow, icPad));
- if(pedestal<10 || pedestal>90)
+ Float_t ped = fPedestal->GetCalROC(iSector)->GetValue(iRow, iPad);
+ // Don't use data from pads where pedestals are abnormally small or large
+ if(ped<10 || ped>90)
return 0;
- signal -= pedestal;
+ signal -= ped;
}
-
-
- if (signal >= 0) {
-
- Float_t count = fNoThreshold->GetCalROC(icsector)->GetValue(icRow, icPad);
- fNoThreshold->GetCalROC(icsector)->SetValue(icRow, icPad,count+1);
- }
-
+
+ // In fNoThreshold we fill all data to estimate the ZS volume
+ Float_t count = fNoThreshold->GetCalROC(iSector)->GetValue(iRow, iPad);
+ fNoThreshold->GetCalROC(iSector)->SetValue(iRow, iPad,count+1);
+
// Require at least 3 ADC channels
- if (signal < 3)
+ if (signal < 3.0)
return 0;
// if noise calibrations are loaded require at least 3*sigmaNoise
if(fNoise) {
-
- Float_t noise = fNoise->GetCalROC(icsector)->GetValue(icRow, icPad);
-
- if(signal<noise*3)
+
+ Float_t noise = fNoise->GetCalROC(iSector)->GetValue(iRow, iPad);
+
+ if(signal < noise*3.0)
return 0;
}
+
//
- // this signal is ok - now see if the previous signal was connected
- // this is a bit ugly since the standard decoder goes down in time bins
- // (10, 9, 8..) while the fast HLT decoder goes up in time bins (1, 2, 3..)
+ // This signal is ok and we store it in the cluster map
//
- if(fSectorLast==icsector && fRowLast==icRow && fPadLast==icPad &&
- fTimeBinLast==icTimeBin+1 || fTimeBinLast==icTimeBin-1)
- fNAboveThreshold++;
- else
- fNAboveThreshold = 1;
-
- if(fNAboveThreshold==2) {
-
- //
- // This is the only special case, because before we did not know if we
- // should store the information
- //
- UpdateSignalHistograms(fSectorLast, fRowLast, fPadLast, fTimeBinLast,
- fSignalLast);
- }
-
- // keep the information for the next signal
- fSectorLast = icsector;
- fRowLast = icRow;
- fPadLast = icPad;
- fTimeBinLast = icTimeBin;
- fSignalLast = signal;
-
- if(fNAboveThreshold==1) // we don't know if this information should be stored
- return 1;
-
- UpdateSignalHistograms(fSectorLast, fRowLast, fPadLast, fTimeBinLast,
- fSignalLast);
- return 1;
+ SetExpandDigit(iRow, iPad, iTimeBin, signal);
+
+ return 1; // signal was accepted
}
+
//_____________________________________________________________________
-void AliTPCdataQA::UpdateSignalHistograms(const Int_t icsector, /*FOLD00*/
- const Int_t icRow,
- const Int_t icPad,
- const Int_t icTimeBin,
- const Float_t signal)
+void AliTPCdataQA::FindLocalMaxima(const Int_t iSector)
{
//
- // Signal filling method
+ // This method is called after the data from each sector has been
+ // exapanded into an array
+ // Loop over the signals and identify local maxima and fill the
+ // calibration objects with the information
//
+
+ Int_t nLocalMaxima = 0;
+ const Int_t maxTimeBin = fTimeBinsMax+4; // Used to step between neighboring pads
+ // Because we have tha pad-time data in a
+ // 1d array
+
+ for (Int_t iRow = 0; iRow < fRowsMax; iRow++) {
+
+ Float_t* allBins = fAllBins[iRow];
+ Int_t* sigBins = fAllSigBins[iRow];
+ const Int_t nSigBins = fAllNSigBins[iRow];
+
+ for (Int_t iSig = 0; iSig < nSigBins; iSig++) {
+
+ Int_t bin = sigBins[iSig];
+ Float_t *b = &allBins[bin];
+
+ //
+ // Now we check if this is a local maximum
+ //
+
+ Float_t qMax = b[0];
+
+ // First check that the charge is bigger than the threshold
+ if (qMax<5)
+ continue;
+
+ // Require at least one neighboring pad with signal
+ if (b[-maxTimeBin]+b[maxTimeBin]<=0) continue;
+
+ // Require at least one neighboring time bin with signal
+ if (b[-1]+b[1]<=0) continue;
+
+ //
+ // Check that this is a local maximum
+ // Note that the checking is done so that if 2 charges has the same
+ // qMax then only 1 cluster is generated
+ // (that is why there is BOTH > and >=)
+ //
+ if (b[-maxTimeBin] >= qMax) continue;
+ if (b[-1 ] >= qMax) continue;
+ if (b[+maxTimeBin] > qMax) continue;
+ if (b[+1 ] > qMax) continue;
+ if (b[-maxTimeBin-1] >= qMax) continue;
+ if (b[+maxTimeBin-1] >= qMax) continue;
+ if (b[+maxTimeBin+1] > qMax) continue;
+ if (b[-maxTimeBin+1] >= qMax) continue;
+
+ //
+ // Now we accept the local maximum and fill the calibration/data objects
+ //
+ nLocalMaxima++;
+
+ Int_t iPad, iTimeBin;
+ GetPadAndTimeBin(bin, iPad, iTimeBin);
+
+ Float_t count = fNLocalMaxima->GetCalROC(iSector)->GetValue(iRow, iPad);
+ fNLocalMaxima->GetCalROC(iSector)->SetValue(iRow, iPad, count+1);
+
+ count = fTimePosition->GetCalROC(iSector)->GetValue(iRow, iPad);
+ fTimePosition->GetCalROC(iSector)->SetValue(iRow, iPad, count+iTimeBin);
+
+ Float_t charge = fMaxCharge->GetCalROC(iSector)->GetValue(iRow, iPad);
+ fMaxCharge->GetCalROC(iSector)->SetValue(iRow, iPad, charge + qMax);
+
+ if(qMax>=10) {
+ count = fOverThreshold10->GetCalROC(iSector)->GetValue(iRow, iPad);
+ fOverThreshold10->GetCalROC(iSector)->SetValue(iRow, iPad, count+1);
+ }
+ if(qMax>=20) {
+ count = fOverThreshold20->GetCalROC(iSector)->GetValue(iRow, iPad);
+ fOverThreshold20->GetCalROC(iSector)->SetValue(iRow, iPad, count+1);
+ }
+ if(qMax>=30) {
+ count = fOverThreshold30->GetCalROC(iSector)->GetValue(iRow, iPad);
+ fOverThreshold30->GetCalROC(iSector)->SetValue(iRow, iPad, count+1);
+ }
+
+ //
+ // Calculate the total charge as the sum over the region:
+ //
+ // o o o o o
+ // o i i i o
+ // o i C i o
+ // o i i i o
+ // o o o o o
+ //
+ // with qmax at the center C.
+ //
+ // The inner charge (i) we always add, but we only add the outer
+ // charge (o) if the neighboring inner bin (i) has a signal.
+ //
+ Int_t minP = 0, maxP = 0, minT = 0, maxT = 0;
+ Float_t qTot = qMax;
+ for(Int_t i = -1; i<=1; i++) {
+ for(Int_t j = -1; j<=1; j++) {
+
+ if(i==0 && j==0)
+ continue;
+
+ Float_t charge = GetQ(b, i, j, maxTimeBin, minT, maxT, minP, maxP);
+ qTot += charge;
+ if(charge>0) {
+ // see if the next neighbor is also above threshold
+ if(i*j==0) {
+ qTot += GetQ(b, 2*i, 2*j, maxTimeBin, minT, maxT, minP, maxP);
+ } else {
+ // we are in a diagonal corner
+ qTot += GetQ(b, i, 2*j, maxTimeBin, minT, maxT, minP, maxP);
+ qTot += GetQ(b, 2*i, j, maxTimeBin, minT, maxT, minP, maxP);
+ qTot += GetQ(b, 2*i, 2*j, maxTimeBin, minT, maxT, minP, maxP);
+ }
+ }
+ }
+ }
+
+ charge = fMeanCharge->GetCalROC(iSector)->GetValue(iRow, iPad);
+ fMeanCharge->GetCalROC(iSector)->SetValue(iRow, iPad, charge + qTot);
+
+ count = fNTimeBins->GetCalROC(iSector)->GetValue(iRow, iPad);
+ fNTimeBins->GetCalROC(iSector)->SetValue(iRow, iPad, count + maxT-minT+1);
+
+ count = fNPads->GetCalROC(iSector)->GetValue(iRow, iPad);
+ fNPads->GetCalROC(iSector)->SetValue(iRow, iPad, count + maxP-minP+1);
+
+ } // end loop over signals
+ } // end loop over rows
- {
- Float_t charge = fMeanCharge->GetCalROC(icsector)->GetValue(icRow, icPad);
- fMeanCharge->GetCalROC(icsector)->SetValue(icRow, icPad, charge + signal);
- }
-
- if (signal>fMaxCharge->GetCalROC(icsector)->GetValue(icRow, icPad)){
- fMaxCharge->GetCalROC(icsector)->SetValue(icRow, icPad,signal);
- }
-
- if (signal>0){
- Float_t count = fOverThreshold0->GetCalROC(icsector)->GetValue(icRow, icPad);
- fOverThreshold0->GetCalROC(icsector)->SetValue(icRow, icPad,count+1);
- };
- //
- if (signal>5){
- Float_t count = fOverThreshold5->GetCalROC(icsector)->GetValue(icRow, icPad);
- fOverThreshold5->GetCalROC(icsector)->SetValue(icRow, icPad,count+1);
- };
- if (signal>10){
- Float_t count = fOverThreshold10->GetCalROC(icsector)->GetValue(icRow, icPad);
- fOverThreshold10->GetCalROC(icsector)->SetValue(icRow, icPad,count+1);
- };
- if (signal>20){
- Float_t count = fOverThreshold20->GetCalROC(icsector)->GetValue(icRow, icPad);
- fOverThreshold20->GetCalROC(icsector)->SetValue(icRow, icPad,count+1);
- };
- if (signal>30){
- Float_t count = fOverThreshold30->GetCalROC(icsector)->GetValue(icRow, icPad);
- fOverThreshold30->GetCalROC(icsector)->SetValue(icRow, icPad,count+1);
- };
+ // cout << "Number of local maximas found: " << nLocalMaxima << endl;
}
//_____________________________________________________________________
cout << "Analyse called" << endl;
- if(fEventCounter==0) {
+ if(fIsAnalysed == kTRUE) {
+
+ cout << "No new data since Analyse was called last time" << endl;
+ return;
+ }
+ if(fEventCounter==0) {
+
cout << "EventCounter == 0, Cannot analyse" << endl;
return;
}
-
- Int_t nTimeBins = fLastTimeBin - fFirstTimeBin +1;
- cout << "Analyse called" << endl
- << "EventCounter: " << fEventCounter << endl
+ Int_t nTimeBins = fLastTimeBin - fFirstTimeBin +1;
+ cout << "EventCounter: " << fEventCounter << endl
<< "TimeBins: " << nTimeBins << endl;
- fMeanCharge->Divide(fNoThreshold);
-
Float_t normalization = 1.0 / Float_t(fEventCounter * nTimeBins);
fNoThreshold->Multiply(normalization);
- fOverThreshold0->Multiply(normalization);
- fOverThreshold5->Multiply(normalization);
- fOverThreshold10->Multiply(normalization);
- fOverThreshold20->Multiply(normalization);
- fOverThreshold30->Multiply(normalization);
+
+ fMeanCharge->Divide(fNLocalMaxima);
+ fMaxCharge->Divide(fNLocalMaxima);
+ fNTimeBins->Divide(fNLocalMaxima);
+ fNPads->Divide(fNLocalMaxima);
+ fTimePosition->Divide(fNLocalMaxima);
+
+ fIsAnalysed = kTRUE;
+}
+
+
+//_____________________________________________________________________
+void AliTPCdataQA::MakeTree(const char *fname){
+ //
+ // Export result to the tree -located in the file
+ // This file can be analyzed using AliTPCCalibViewer
+ //
+ AliTPCPreprocessorOnline preprocesor;
+
+ if (fNLocalMaxima) preprocesor.AddComponent(fNLocalMaxima);
+ if (fMaxCharge) preprocesor.AddComponent(fMaxCharge);
+ if (fMeanCharge) preprocesor.AddComponent(fMeanCharge);
+ if (fNoThreshold) preprocesor.AddComponent(fNoThreshold);
+ if (fNTimeBins) preprocesor.AddComponent(fNTimeBins);
+ if (fNPads) preprocesor.AddComponent(fNPads);
+ if (fTimePosition) preprocesor.AddComponent(fTimePosition);
+ if (fOverThreshold10) preprocesor.AddComponent(fOverThreshold10);
+ if (fOverThreshold20) preprocesor.AddComponent(fOverThreshold20);
+ if (fOverThreshold30) preprocesor.AddComponent(fOverThreshold30);
+
+ preprocesor.DumpToFile(fname);
+}
+
+
+//_____________________________________________________________________
+void AliTPCdataQA::MakeArrays(){
+ //
+ // The arrays for expanding the raw data are defined and
+ // som parameters are intialised
+ //
+ AliTPCROC * roc = AliTPCROC::Instance();
+ //
+ // To make the array big enough for all sectors we take
+ // the dimensions from the outer row of an OROC (the last sector)
+ //
+ fRowsMax = roc->GetNRows(roc->GetNSector()-1);
+ fPadsMax = roc->GetNPads(roc->GetNSector()-1,fRowsMax-1);
+ fTimeBinsMax = fLastTimeBin - fFirstTimeBin +1;
+
+ //
+ // Since we have added 2 pads (TimeBins) before and after the real pads (TimeBins)
+ // to make sure that we can always query the exanded table even when the
+ // max is on the edge
+ //
+
+
+ fAllBins = new Float_t*[fRowsMax];
+ fAllSigBins = new Int_t*[fRowsMax];
+ fAllNSigBins = new Int_t[fRowsMax];
+
+ for (Int_t iRow = 0; iRow < fRowsMax; iRow++) {
+ //
+ Int_t maxBin = (fTimeBinsMax+4)*(fPadsMax+4);
+ fAllBins[iRow] = new Float_t[maxBin];
+ memset(fAllBins[iRow],0,sizeof(Float_t)*maxBin); // set all values to 0
+ fAllSigBins[iRow] = new Int_t[maxBin];
+ fAllNSigBins[iRow] = 0;
+ }
+}
+
+
+//_____________________________________________________________________
+void AliTPCdataQA::CleanArrays(){
+ //
+ //
+ //
+
+ for (Int_t iRow = 0; iRow < fRowsMax; iRow++) {
+ //
+ Int_t maxBin = (fTimeBinsMax+4)*(fPadsMax+4);
+ memset(fAllBins[iRow],0,sizeof(Float_t)*maxBin);
+ fAllNSigBins[iRow]=0;
+ }
+}
+
+//_____________________________________________________________________
+void AliTPCdataQA::GetPadAndTimeBin(Int_t bin, Int_t& iPad, Int_t& iTimeBin){
+ //
+ // Return pad and timebin for a given bin
+ //
+
+ // Int_t bin = iPad*(fTimeBinsMax+4)+iTimeBin;
+ iTimeBin = bin%(fTimeBinsMax+4);
+ iPad = (bin-iTimeBin)/(fTimeBinsMax+4);
+
+ iPad -= 2;
+ iTimeBin -= 2;
+ iTimeBin += fFirstTimeBin;
+
+ R__ASSERT(iPad>=0 && iPad<=fPadsMax);
+ R__ASSERT(iTimeBin>=fFirstTimeBin && iTimeBin<=fLastTimeBin);
+}
+
+//_____________________________________________________________________
+void AliTPCdataQA::SetExpandDigit(const Int_t iRow, Int_t iPad,
+ Int_t iTimeBin, const Float_t signal)
+{
+ //
+ //
+ //
+ R__ASSERT(iRow>=0 && iRow<fRowsMax);
+ R__ASSERT(iPad>=0 && iPad<=fPadsMax);
+ R__ASSERT(iTimeBin>=fFirstTimeBin && iTimeBin<=fLastTimeBin);
+
+ iTimeBin -= fFirstTimeBin;
+ iPad += 2;
+ iTimeBin += 2;
+
+ Int_t bin = iPad*(fTimeBinsMax+4)+iTimeBin;
+ fAllBins[iRow][bin] = signal;
+ fAllSigBins[iRow][fAllNSigBins[iRow]] = bin;
+ fAllNSigBins[iRow]++;
+}
+
+Float_t AliTPCdataQA::GetQ(const Float_t* adcArray, const Int_t time,
+ const Int_t pad, const Int_t maxTimeBins,
+ Int_t& timeMin, Int_t& timeMax,
+ Int_t& padMin, Int_t& padMax)
+{
+ //
+ // This methods return the charge in the bin time+pad*maxTimeBins
+ // If the charge is above 0 it also updates the padMin, padMax, timeMin
+ // and timeMax if necessary
+ //
+ Float_t charge = adcArray[time + pad*maxTimeBins];
+ if(charge > 0) {
+ timeMin = TMath::Min(time, timeMin); timeMax = TMath::Max(time, timeMax);
+ padMin = TMath::Min(pad, padMin); padMax = TMath::Max(pad, padMax);
+ }
+ return charge;
}
git://git.uio.no / u / mrichter / AliRoot.git / blobdiff