// //
///////////////////////////////////////////////////////////////////////////////
-#include "TArrayI.h"
+#include "TObject.h"
#include "AliLog.h"
,fLayer(-1)
,fStack(-1)
,fSM(-1)
- ,fIndex(NULL)
- ,fPositionRow(0)
- ,fPositionCol(0)
- ,fPositionTbin(0)
- ,fLastRow(0)
- ,fLastCol(0)
- ,fLastTbin(0)
+ ,fBoolIndex(NULL)
+ ,fSortedIndex(NULL)
+ ,fMaxLimit(0)
+ ,fPositionRC(0)
+ ,fSortedWasInit(kFALSE)
+ ,fCurrRow(0)
+ ,fCurrCol(0)
+ ,fCurrTbin(0)
,fNrows(0)
,fNcols(0)
,fNtbins(0)
- ,fMaxLimit(0)
- ,fResetCounters(kTRUE)
,fHasEntry(kFALSE)
{
//
,fLayer(-1)
,fStack(-1)
,fSM(-1)
- ,fIndex(NULL)
- ,fPositionRow(0)
- ,fPositionCol(0)
- ,fPositionTbin(0)
- ,fLastRow(0)
- ,fLastCol(0)
- ,fLastTbin(0)
+ ,fBoolIndex(NULL)
+ ,fSortedIndex(NULL)
+ ,fMaxLimit(0)
+ ,fPositionRC(0)
+ ,fSortedWasInit(kFALSE)
+ ,fCurrRow(0)
+ ,fCurrCol(0)
+ ,fCurrTbin(0)
,fNrows(0)
,fNcols(0)
,fNtbins(0)
- ,fMaxLimit(0)
- ,fResetCounters(kTRUE)
,fHasEntry(kFALSE)
{
//
,fLayer(a.fLayer)
,fStack(a.fStack)
,fSM(a.fSM)
- ,fIndex(a.fIndex)
- ,fPositionRow(a.fPositionRow)
- ,fPositionCol(a.fPositionCol)
- ,fPositionTbin(a.fPositionTbin)
- ,fLastRow(a.fLastRow)
- ,fLastCol(a.fLastCol)
- ,fLastTbin(a.fLastTbin)
+ ,fBoolIndex(NULL)
+ ,fSortedIndex(NULL)
+ ,fMaxLimit(a.fMaxLimit)
+ ,fPositionRC(a.fPositionRC)
+ ,fSortedWasInit(a.fSortedWasInit)
+ ,fCurrRow(a.fCurrRow)
+ ,fCurrCol(a.fCurrCol)
+ ,fCurrTbin(a.fCurrTbin)
,fNrows(a.fNrows)
,fNcols(a.fNcols)
,fNtbins(a.fNtbins)
- ,fMaxLimit(a.fMaxLimit)
- ,fResetCounters(a.fResetCounters)
,fHasEntry(a.fHasEntry)
{
//
// Copy constructor
//
+ fBoolIndex = new Bool_t[fMaxLimit];
+ memcpy(fBoolIndex, a.fBoolIndex, fMaxLimit*sizeof(Bool_t));
+
+ fSortedIndex = new Short_t[2*fMaxLimit];
+ memcpy(fSortedIndex, a.fSortedIndex, 2*fMaxLimit*sizeof(Short_t));
}
//_____________________________________________________________________________
// Destructor
//
- if (fIndex) {
- delete fIndex;
- fIndex = NULL;
+ if (fBoolIndex) {
+ delete [] fBoolIndex;
+ fBoolIndex = NULL;
+ }
+
+if (fSortedIndex) {
+ delete [] fSortedIndex;
+ fSortedIndex = NULL;
}
}
((AliTRDSignalIndex &)a).fLayer = fLayer;
((AliTRDSignalIndex &)a).fStack = fStack;
((AliTRDSignalIndex &)a).fSM = fSM;
- ((AliTRDSignalIndex &)a).fIndex = fIndex;
- ((AliTRDSignalIndex &)a).fPositionRow = fPositionRow;
- ((AliTRDSignalIndex &)a).fPositionTbin = fPositionTbin;
- ((AliTRDSignalIndex &)a).fLastRow = fLastRow;
- ((AliTRDSignalIndex &)a).fLastCol = fLastCol;
- ((AliTRDSignalIndex &)a).fLastTbin = fLastTbin;
+ ((AliTRDSignalIndex &)a).fMaxLimit = fMaxLimit;
+ ((AliTRDSignalIndex &)a).fPositionRC = fPositionRC;
+ ((AliTRDSignalIndex &)a).fSortedWasInit = fSortedWasInit;
+ ((AliTRDSignalIndex &)a).fCurrRow = fCurrRow;
+ ((AliTRDSignalIndex &)a).fCurrCol = fCurrCol;
+ ((AliTRDSignalIndex &)a).fCurrTbin = fCurrTbin;
((AliTRDSignalIndex &)a).fNrows = fNrows;
((AliTRDSignalIndex &)a).fNcols = fNcols;
((AliTRDSignalIndex &)a).fNtbins = fNtbins;
- ((AliTRDSignalIndex &)a).fMaxLimit = fMaxLimit;
- ((AliTRDSignalIndex &)a).fResetCounters = fResetCounters;
((AliTRDSignalIndex &)a).fHasEntry = fHasEntry;
+ if(((AliTRDSignalIndex &)a).fBoolIndex)
+ {
+ delete [] ((AliTRDSignalIndex &)a).fBoolIndex;
+ }
+ ((AliTRDSignalIndex &)a).fBoolIndex = new Bool_t[fMaxLimit];
+ memcpy(((AliTRDSignalIndex &)a).fBoolIndex, fBoolIndex, fMaxLimit*sizeof(Bool_t));
+
+ if(((AliTRDSignalIndex &)a).fSortedIndex)
+ {
+ delete [] ((AliTRDSignalIndex &)a).fSortedIndex;
+ }
+ ((AliTRDSignalIndex &)a).fSortedIndex = new Short_t[2*fMaxLimit];
+ memcpy(((AliTRDSignalIndex &)a).fSortedIndex, fSortedIndex, 2*fMaxLimit*sizeof(Short_t));
+
}
//_____________________________________________________________________________
}
//_____________________________________________________________________________
-void AliTRDSignalIndex::Allocate(Int_t nrow, Int_t ncol,Int_t ntime)
+void AliTRDSignalIndex::Allocate(const Int_t nrow, const Int_t ncol, const Int_t ntime)
{
//
// Create the arrays
fNcols = ncol;
fNtbins = ntime;
- fMaxLimit = nrow * ncol * ntime + nrow * ncol * 2;
- if (fIndex) {
- delete fIndex;
- fIndex = NULL;
+ fMaxLimit = nrow * ncol + 1;
+
+ if (fBoolIndex) {
+ delete [] fBoolIndex;
+ fBoolIndex = NULL;
+ }
+ if (fSortedIndex) {
+ delete [] fSortedIndex;
+ fSortedIndex = NULL;
}
- fIndex = new TArrayI(fMaxLimit);
- fIndex->Reset(-1);
+ fBoolIndex = new Bool_t[fMaxLimit];
+ fSortedIndex = new Short_t[2*fMaxLimit];
+ ResetArrays();
+
ResetCounters();
fHasEntry = kFALSE;
}
+//_____________________________________________________________________________
+void AliTRDSignalIndex::ResetArrays()
+{
+ memset(fBoolIndex,0x00,sizeof(Bool_t)*fMaxLimit);
+ memset(fSortedIndex,0xFF,2*sizeof(Short_t)*fMaxLimit);
+}
+
//_____________________________________________________________________________
void AliTRDSignalIndex::Reset()
{
// Reset the array but keep the size - no realloc
//
- fIndex->Reset(-1);
+ ResetArrays();
ResetCounters();
fHasEntry = kFALSE;
}
//_____________________________________________________________________________
-void AliTRDSignalIndex::ResetContentConditional(Int_t nrow, Int_t ncol,Int_t ntime)
+void AliTRDSignalIndex::ResetContentConditional(const Int_t nrow, const Int_t ncol, const Int_t ntime)
{
//
// Reset the array but keep the size if no need to enlarge - no realloc
Allocate(nrow, ncol, ntime);
}
else {
- fIndex->Reset(-1);
+ ResetArrays();
ResetCounters();
fHasEntry = kFALSE;
}
fNcols = -1;
fNtbins = -1;
- if (fIndex) {
- delete fIndex;
- fIndex = NULL;
+ if (fBoolIndex) {
+ delete [] fBoolIndex;
+ fBoolIndex = NULL;
+ }
+
+ if (fSortedIndex) {
+ delete [] fSortedIndex;
+ fSortedIndex = NULL;
}
- fIndex = new TArrayI();
+
ResetCounters();
fHasEntry = kFALSE;
}
//_____________________________________________________________________________
-void AliTRDSignalIndex::AddIndexTBin(Int_t row, Int_t col, Int_t tbin)
+void AliTRDSignalIndex::AddIndexTBin(Int_t row, Int_t col, Int_t /*tbin*/)
{
+ //
+ // This function is now obsolate, it will be deleted in future.
//
// Store the index row-column-tbin as an interesting one
// The RC index is updated to!!!
// This is to be used in the TRD clusterizer!
//
+
+ AddIndexRC(row, col);
- if (row * col * tbin + row * col * 2 >= fMaxLimit) {
- AliError(Form("Out-of-limits fPositionCol + fNtbins %d. Limit is: %d"
- ,fPositionCol + fNtbins
- ,fMaxLimit));
- return;
- }
-
- if ((row != fLastRow) ||
- (col != fLastCol)) {
-
- // New RC combination
- if (fResetCounters == kTRUE) {
- fPositionRow = 0;
- fPositionCol = 1;
- fResetCounters = kFALSE;
- }
- else {
- fPositionRow += fNtbins + 2;
- fPositionCol += fNtbins + 2;
- }
-
- fPositionTbin = 1;
-
- (*fIndex)[fPositionRow] = row;
- (*fIndex)[fPositionCol] = col;
- (*fIndex)[fPositionCol + fPositionTbin] = tbin;
- ++fPositionTbin;
+}
- }
- else {
+//_____________________________________________________________________________
+void AliTRDSignalIndex::AddIndexRC(const Int_t row, const Int_t col)
+{
+ //
+ // Store the index row-column as an interesting one
+ // The RC index is updated to!!!
+ // This is to be used in the TRD clusterizer!
+ //
- // Same RCT combination ?
-
- (*fIndex)[fPositionCol + fPositionTbin] = tbin;
- ++fPositionTbin;
-
+ if (row * col + 1 >= fMaxLimit) {
+ AliError(Form("Out-of-limits row * col %d. Limit is: %d"
+ ,row * col
+ ,fMaxLimit));
+ return;
}
-
- fLastRow = row;
- fLastCol = col;
- fLastTbin = tbin;
+
+ fBoolIndex[row*fNcols+col]=kTRUE;
fHasEntry = kTRUE;
Bool_t AliTRDSignalIndex::NextRCIndex(Int_t &row, Int_t &col)
{
//
- // Return the position (index in the data array) of the next available pad
+ // Returns next used RC combination
//
- if (fResetCounters == kTRUE) {
- fPositionRow = 0;
- fPositionCol = 1;
- fResetCounters = kFALSE;
+ if(fSortedIndex[fPositionRC]>-1){
+ row = fCurrRow = fSortedIndex[fPositionRC];
+ fPositionRC++;
+ col = fCurrCol = fSortedIndex[fPositionRC];
+ fPositionRC++;
+ return kTRUE;
}
else {
- fPositionRow += fNtbins + 2;
- fPositionCol += fNtbins + 2;
- }
-
- if (fPositionRow >= fMaxLimit) {
- return kFALSE;
+ if(fSortedWasInit || !fHasEntry)
+ {
+ ResetCounters();
+ row = fCurrRow;
+ col = fCurrCol;
+ return kFALSE;
+ }
+ else
+ {
+ InitSortedIndex();
+ return NextRCIndex(row, col);
+ }
}
- fPositionTbin = 1;
-
- row = (*fIndex)[fPositionRow];
- col = (*fIndex)[fPositionCol];
-
- if ((row > -1) &&
- (col > -1)) {
- return kTRUE;
- }
-
- return kFALSE;
-
}
//_____________________________________________________________________________
Bool_t AliTRDSignalIndex::NextRCTbinIndex(Int_t &row, Int_t &col, Int_t &tbin)
{
//
- // Return the position (index in the data array) of the next available tbin
- // within the current pad
- //
-
- if (fPositionRow >= fMaxLimit) {
- return kFALSE;
- }
+ // Returns the next tbin, or if there is no next time bin, it returns the
+ // next used RC combination.
+ //
if (NextTbinIndex(tbin)) {
- row = (*fIndex)[fPositionRow];
- col = (*fIndex)[fPositionCol];
- fResetCounters = kFALSE;
+ row = fCurrRow;
+ col = fCurrCol;
return kTRUE;
}
else {
Bool_t AliTRDSignalIndex::NextTbinIndex(Int_t &tbin)
{
//
- // Return the position (index in the data array) of the next available tbin
- // within the current pad
+ // Returns the next tbin of the current RC combination
//
+
+ if(fCurrTbin<fNtbins)
+ {
+ tbin = fCurrTbin++;
+ return kTRUE;
+ }
- if ((fPositionCol + fPositionTbin >= fMaxLimit) ||
- (fPositionTbin > fNtbins )) {
- return kFALSE;
- }
-
- tbin = (*fIndex)[fPositionCol + fPositionTbin];
+ return kFALSE;
- if (tbin > -1) {
- ++fPositionTbin;
- return kTRUE;
- }
+}
- return kFALSE;
+//_____________________________________________________________________________
+void AliTRDSignalIndex::InitSortedIndex()
+{
+ //
+ // Creates the SortedIndex
+ //
+ fSortedWasInit = kTRUE;
+ int pos=0;
+ for(int row = 0; row < fNrows; row++)
+ for(int col = 0; col < fNcols; col++)
+ if(IsBoolIndex(row, col)){
+ fSortedIndex[pos] = row;
+ pos++;
+ fSortedIndex[pos] = col;
+ pos++;
+ }
}
//_____________________________________________________________________________
// Reset the counters/iterators
//
- fPositionRow = 0;
- fPositionCol = fPositionRow + 1;
- fPositionTbin = 1;
- fLastRow = -1;
- fLastCol = -1;
- fLastTbin = -1;
- fResetCounters = kTRUE;
-
+ fCurrRow = -1;
+ fCurrCol = -1;
+ fCurrTbin = -1;
+ fPositionRC = 0;
}
,fTrackletContainer(NULL)
,fAddLabels(kTRUE)
,fRawVersion(2)
- ,fIndexesOut(NULL)
- ,fIndexesMaxima(NULL)
,fTransform(new AliTRDtransform(0))
,fLUTbin(0)
,fLUT(NULL)
+ ,fDigitsIn(NULL)
+ ,fIndexes(NULL)
+ ,fADCthresh(0)
+ ,fMaxThresh(0)
+ ,fSigThresh(0)
+ ,fMinMaxCutSigma(0)
+ ,fMinLeftRightCutSigma(0)
+ ,fLayer(0)
+ ,fDet(0)
+ ,fVolid(0)
+ ,fColMax(0)
+ ,fTimeTotal(0)
+ ,fCalGainFactorROC(NULL)
+ ,fCalGainFactorDetValue(0)
+ ,fCalNoiseROC(NULL)
+ ,fCalNoiseDetValue(0)
+ ,fDigitsOut(NULL)
+ ,fClusterROC(0)
+ ,firstClusterROC(0)
{
//
// AliTRDclusterizer default constructor
,fTrackletContainer(NULL)
,fAddLabels(kTRUE)
,fRawVersion(2)
- ,fIndexesOut(NULL)
- ,fIndexesMaxima(NULL)
,fTransform(new AliTRDtransform(0))
,fLUTbin(0)
,fLUT(NULL)
+ ,fDigitsIn(NULL)
+ ,fIndexes(NULL)
+ ,fADCthresh(0)
+ ,fMaxThresh(0)
+ ,fSigThresh(0)
+ ,fMinMaxCutSigma(0)
+ ,fMinLeftRightCutSigma(0)
+ ,fLayer(0)
+ ,fDet(0)
+ ,fVolid(0)
+ ,fColMax(0)
+ ,fTimeTotal(0)
+ ,fCalGainFactorROC(NULL)
+ ,fCalGainFactorDetValue(0)
+ ,fCalNoiseROC(NULL)
+ ,fCalNoiseDetValue(0)
+ ,fDigitsOut(NULL)
+ ,fClusterROC(0)
+ ,firstClusterROC(0)
{
//
// AliTRDclusterizer constructor
,fTrackletContainer(NULL)
,fAddLabels(kTRUE)
,fRawVersion(2)
- ,fIndexesOut(NULL)
- ,fIndexesMaxima(NULL)
,fTransform(NULL)
,fLUTbin(0)
,fLUT(0)
+ ,fDigitsIn(NULL)
+ ,fIndexes(NULL)
+ ,fADCthresh(0)
+ ,fMaxThresh(0)
+ ,fSigThresh(0)
+ ,fMinMaxCutSigma(0)
+ ,fMinLeftRightCutSigma(0)
+ ,fLayer(0)
+ ,fDet(0)
+ ,fVolid(0)
+ ,fColMax(0)
+ ,fTimeTotal(0)
+ ,fCalGainFactorROC(NULL)
+ ,fCalGainFactorDetValue(0)
+ ,fCalNoiseROC(NULL)
+ ,fCalNoiseDetValue(0)
+ ,fDigitsOut(NULL)
+ ,fClusterROC(0)
+ ,firstClusterROC(0)
{
//
// AliTRDclusterizer copy constructor
fTrackletContainer = NULL;
}
- if (fIndexesOut){
- delete fIndexesOut;
- fIndexesOut = NULL;
- }
-
- if (fIndexesMaxima){
- delete fIndexesMaxima;
- fIndexesMaxima = NULL;
- }
-
if (fTransform){
delete fTransform;
fTransform = NULL;
delete [] fLUT;
fLUT = NULL;
}
+
+ if (fDigitsOut) {
+ delete fDigitsOut;
+ fDigitsOut = NULL;
+ }
}
((AliTRDclusterizer &) c).fTrackletContainer = NULL;
((AliTRDclusterizer &) c).fAddLabels = fAddLabels;
((AliTRDclusterizer &) c).fRawVersion = fRawVersion;
- ((AliTRDclusterizer &) c).fIndexesOut = NULL;
- ((AliTRDclusterizer &) c).fIndexesMaxima = NULL;
((AliTRDclusterizer &) c).fTransform = NULL;
((AliTRDclusterizer &) c).fLUTbin = 0;
((AliTRDclusterizer &) c).fLUT = NULL;
+ ((AliTRDclusterizer &) c).fDigitsIn = NULL;
+ ((AliTRDclusterizer &) c).fIndexes = NULL;
+ ((AliTRDclusterizer &) c).fADCthresh = 0;
+ ((AliTRDclusterizer &) c).fMaxThresh = 0;
+ ((AliTRDclusterizer &) c).fSigThresh = 0;
+ ((AliTRDclusterizer &) c).fMinMaxCutSigma= 0;
+ ((AliTRDclusterizer &) c).fMinLeftRightCutSigma = 0;
+ ((AliTRDclusterizer &) c).fLayer = 0;
+ ((AliTRDclusterizer &) c).fDet = 0;
+ ((AliTRDclusterizer &) c).fVolid = 0;
+ ((AliTRDclusterizer &) c).fColMax = 0;
+ ((AliTRDclusterizer &) c).fTimeTotal = 0;
+ ((AliTRDclusterizer &) c).fCalGainFactorROC = NULL;
+ ((AliTRDclusterizer &) c).fCalGainFactorDetValue = 0;
+ ((AliTRDclusterizer &) c).fCalNoiseROC = NULL;
+ ((AliTRDclusterizer &) c).fCalNoiseDetValue = 0;
+ ((AliTRDclusterizer &) c).fDigitsOut = NULL;
+ ((AliTRDclusterizer &) c).fClusterROC = 0;
+ ((AliTRDclusterizer &) c).firstClusterROC= 0;
}
}
-//_____________________________________________________________________________
-void AliTRDclusterizer::ResetHelperIndexes(AliTRDSignalIndex *indexesIn)
-{
- //
- // Reset the helper indexes
- //
-
- if (fIndexesOut)
- {
- // carefull here - we assume that only row number may change - most probable
- if (indexesIn->GetNrow() <= fIndexesOut->GetNrow())
- fIndexesOut->ResetContent();
- else
- fIndexesOut->ResetContentConditional(indexesIn->GetNrow()
- , indexesIn->GetNcol()
- , indexesIn->GetNtime());
- }
- else
- {
- fIndexesOut = new AliTRDSignalIndex(indexesIn->GetNrow()
- , indexesIn->GetNcol()
- , indexesIn->GetNtime());
- }
-
- if (fIndexesMaxima)
- {
- // carefull here - we assume that only row number may change - most probable
- if (indexesIn->GetNrow() <= fIndexesMaxima->GetNrow())
- {
- fIndexesMaxima->ResetContent();
- }
- else
- {
- fIndexesMaxima->ResetContentConditional(indexesIn->GetNrow()
- , indexesIn->GetNcol()
- , indexesIn->GetNtime());
- }
- }
- else
- {
- fIndexesMaxima = new AliTRDSignalIndex(indexesIn->GetNrow()
- , indexesIn->GetNcol()
- , indexesIn->GetNtime());
- }
-
-}
-
//_____________________________________________________________________________
Bool_t AliTRDclusterizer::ReadDigits()
{
}
- AliTRDrawStreamBase *pinput = AliTRDrawStreamBase::GetRawStream(rawReader);
- AliTRDrawStreamBase &input = *pinput;
+ AliTRDrawStreamBase *input = AliTRDrawStreamBase::GetRawStream(rawReader);
- AliInfo(Form("Stream version: %s", input.IsA()->GetName()));
+ AliInfo(Form("Stream version: %s", input->IsA()->GetName()));
Int_t det = 0;
- while ((det = input.NextChamber(fDigitsManager,fTrackletContainer)) >= 0){
+ while ((det = input->NextChamber(fDigitsManager,fTrackletContainer)) >= 0){
Bool_t iclusterBranch = kFALSE;
if (fDigitsManager->GetIndexes(det)->HasEntry()){
iclusterBranch = MakeClusters(det);
delete fDigitsManager;
fDigitsManager = NULL;
- delete pinput;
- pinput = NULL;
+ delete input;
+ input = NULL;
AliInfo(Form("Number of found clusters : %d", RecPoints()->GetEntriesFast()));
return kTRUE;
}
//_____________________________________________________________________________
-void AliTRDclusterizer::SetPadStatus(UChar_t status, UChar_t &out){
+void AliTRDclusterizer::SetPadStatus(const UChar_t status, UChar_t &out){
//
// Set the pad status into out
// First three bits are needed for the position encoding
//
- status = status << 3;
- out |= status;
+ out |= status << 3;
}
//_____________________________________________________________________________
-UChar_t AliTRDclusterizer::GetPadStatus(UChar_t encoding){
+UChar_t AliTRDclusterizer::GetPadStatus(UChar_t encoding) const {
//
// return the staus encoding of the corrupted pad
//
}
//_____________________________________________________________________________
-Int_t AliTRDclusterizer::GetCorruption(UChar_t encoding){
+Int_t AliTRDclusterizer::GetCorruption(UChar_t encoding) const {
//
// Return the position of the corruption
//
//
// Get the digits
- // digits should be expanded beforehand!
+ // digits should be expanded beforehand!
// digitsIn->Expand();
- AliTRDarrayADC *digitsIn = (AliTRDarrayADC *) fDigitsManager->GetDigits(det); //mod
+ fDigitsIn = (AliTRDarrayADC *) fDigitsManager->GetDigits(det); //mod
// This is to take care of switched off super modules
- if (!digitsIn->HasData())
+ if (!fDigitsIn->HasData())
{
return kFALSE;
}
- AliTRDSignalIndex *indexesIn = fDigitsManager->GetIndexes(det);
- if (indexesIn->IsAllocated() == kFALSE)
+ fIndexes = fDigitsManager->GetIndexes(det);
+ if (fIndexes->IsAllocated() == kFALSE)
{
AliError("Indexes do not exist!");
return kFALSE;
}
-
+
AliTRDcalibDB *calibration = AliTRDcalibDB::Instance();
if (!calibration)
{
return kFALSE;
}
- // ADC thresholds
- // There is no ADC threshold anymore, and simParam should not be used in clusterizer. KO
- Float_t adcThreshold = 0;
+ fADCthresh = 0;
if (!fReconstructor){
AliError("Reconstructor not set\n");
TTreeSRedirector *fDebugStream = fReconstructor->GetDebugStream(AliTRDReconstructor::kClusterizer);
- // Threshold value for the maximum
- Float_t maxThresh = fReconstructor->GetRecoParam()->GetClusMaxThresh();
- // Threshold value for the digit signal
- Float_t sigThresh = fReconstructor->GetRecoParam()->GetClusSigThresh();
-
- // Threshold value for the maximum ( cut noise)
- Float_t minMaxCutSigma = fReconstructor->GetRecoParam()->GetMinMaxCutSigma();
- // Threshold value for the sum pad ( cut noise)
- Float_t minLeftRightCutSigma = fReconstructor->GetRecoParam()->GetMinLeftRightCutSigma();
-
- // Iteration limit for unfolding procedure
- const Float_t kEpsilon = 0.01;
- const Int_t kNclus = 3;
- const Int_t kNsig = 5;
+ fMaxThresh = fReconstructor->GetRecoParam()->GetClusMaxThresh();
+ fSigThresh = fReconstructor->GetRecoParam()->GetClusSigThresh();
+ fMinMaxCutSigma = fReconstructor->GetRecoParam()->GetMinMaxCutSigma();
+ fMinLeftRightCutSigma = fReconstructor->GetRecoParam()->GetMinLeftRightCutSigma();
- Int_t iUnfold = 0;
- Double_t ratioLeft = 1.0;
- Double_t ratioRight = 1.0;
-
- Double_t padSignal[kNsig];
- Double_t clusterSignal[kNclus];
-
- Int_t istack = indexesIn->GetStack();
- Int_t ilayer = indexesIn->GetLayer();
- Int_t isector = indexesIn->GetSM();
+ Int_t istack = fIndexes->GetStack();
+ fLayer = fIndexes->GetLayer();
+ Int_t isector = fIndexes->GetSM();
// Start clustering in the chamber
- Int_t idet = AliTRDgeometry::GetDetector(ilayer,istack,isector);
- if (idet != det) {
+ fDet = AliTRDgeometry::GetDetector(fLayer,istack,isector);
+ if (fDet != det) {
AliError("Strange Detector number Missmatch!");
return kFALSE;
}
// TRD space point transformation
fTransform->SetDetector(det);
- Int_t iGeoLayer = AliGeomManager::kTRD1 + ilayer;
+ Int_t iGeoLayer = AliGeomManager::kTRD1 + fLayer;
Int_t iGeoModule = istack + AliTRDgeometry::Nstack() * isector;
- UShort_t volid = AliGeomManager::LayerToVolUID(iGeoLayer,iGeoModule);
+ fVolid = AliGeomManager::LayerToVolUID(iGeoLayer,iGeoModule);
- Int_t nColMax = digitsIn->GetNcol();
- Int_t nRowMax = digitsIn->GetNrow();
- Int_t nTimeTotal = digitsIn->GetNtime();
+ fColMax = fDigitsIn->GetNcol();
+ Int_t nRowMax = fDigitsIn->GetNrow();
+ fTimeTotal = fDigitsIn->GetNtime();
// Detector wise calibration object for the gain factors
- const AliTRDCalDet *calGainFactorDet = calibration->GetGainFactorDet();
+ const AliTRDCalDet *calGainFactorDet = calibration->GetGainFactorDet();
// Calibration object with pad wise values for the gain factors
- AliTRDCalROC *calGainFactorROC = calibration->GetGainFactorROC(idet);
+ fCalGainFactorROC = calibration->GetGainFactorROC(fDet);
// Calibration value for chamber wise gain factor
- Float_t calGainFactorDetValue = calGainFactorDet->GetValue(idet);
+ fCalGainFactorDetValue = calGainFactorDet->GetValue(fDet);
// Detector wise calibration object for the noise
- const AliTRDCalDet *calNoiseDet = calibration->GetNoiseDet();
+ const AliTRDCalDet *calNoiseDet = calibration->GetNoiseDet();
// Calibration object with pad wise values for the noise
- AliTRDCalROC *calNoiseROC = calibration->GetNoiseROC(idet);
+ fCalNoiseROC = calibration->GetNoiseROC(fDet);
// Calibration value for chamber wise noise
- Float_t calNoiseDetValue = calNoiseDet->GetValue(idet);
-
- Int_t nClusters = 0;
-
- AliTRDarraySignal *digitsOut = new AliTRDarraySignal(nRowMax, nColMax, nTimeTotal);
- AliTRDarrayADC padStatus(nRowMax, nColMax, nTimeTotal);
+ fCalNoiseDetValue = calNoiseDet->GetValue(fDet);
- ResetHelperIndexes(indexesIn);
+ if(fDigitsOut) delete fDigitsOut;
+ fDigitsOut = new AliTRDarraySignal(nRowMax, fColMax, fTimeTotal);
+
+ firstClusterROC = -1;
+ fClusterROC = 0;
// Apply the gain and the tail cancelation via digital filter
- TailCancelation(digitsIn
- ,digitsOut
- ,indexesIn
- ,fIndexesOut
- ,nTimeTotal
- ,adcThreshold
- ,calGainFactorROC
- ,calGainFactorDetValue);
-
- Int_t row = 0;
- Int_t col = 0;
- Int_t time = 0;
- Int_t iPad = 0;
-
- UChar_t status[3]={0, 0, 0}, ipos = 0;
- fIndexesOut->ResetCounters();
- Int_t nMaximas = 0, nCorrupted = 0;
- while (fIndexesOut->NextRCTbinIndex(row, col, time)) {
- // reset pad status
- ipos = 0; for(Int_t is=3; is--;) status[is] = 0;
+ TailCancelation();
- Float_t signalM = TMath::Abs(digitsOut->GetData(row,col,time));
- status[1] = digitsIn->GetPadStatus(row,col,time);
- if(status[1]) SETBIT(ipos, AliTRDcluster::kMaskedCenter);
+ ClusterizerStruct curr, last;
+ last.Row = -1;
+ Int_t nMaximas = 0, nCorrupted = 0;
+ Double_t Ratio = 1;
- if(signalM < maxThresh) continue;
+ // Here the clusterfining is happening
+
+ for(curr.Time = 0; curr.Time < fTimeTotal; curr.Time++)
+ while(fIndexes->NextRCIndex(curr.Row, curr.Col))
+ if(IsMaximum(curr.Row, curr.Col, curr.Time, curr.padStatus, &curr.Signals[0]))
+ {
+ if(last.Row>-1)
+ {
+ last.Signals[0] *= Ratio;
+ if(curr.Row==last.Row && curr.Col==last.Col+2)
+ {
+ if(IsFivePadCluster(last.Row, last.Col, last.Time, &last.Signals[0], &curr.Signals[0], Ratio))
+ {
+ last.Signals[2] *= Ratio;
+ Ratio = 1 - Ratio;
+ }else Ratio = 1;
+ }else Ratio = 1;
+ CreateCluster(last.Row, last.Col, last.Time, &last.Signals[0], last.padStatus);
+ }
+ last=curr;
+ }
+ if(last.Row>-1)
+ {
+ last.Signals[0] *= Ratio;
+ CreateCluster(last.Row, last.Col, last.Time, &last.Signals[0], last.padStatus);
+ }
- Float_t noiseMiddleThresh = minMaxCutSigma*calNoiseDetValue*calNoiseROC->GetValue(col,row);
- if (signalM < noiseMiddleThresh) continue;
+ if(fReconstructor->GetStreamLevel(AliTRDReconstructor::kClusterizer) > 2){
+ (*fDebugStream) << "MakeClusters"
+ << "Detector=" << det
+ << "NMaxima=" << nMaximas
+ << "NClusters=" << fClusterROC
+ << "NCorrupted=" << nCorrupted
+ << "\n";
+ }
- if (col + 1 >= nColMax || col-1 < 0) continue;
-
- Float_t signalL = TMath::Abs(digitsOut->GetData(row,col+1,time));
- status[0] = digitsIn->GetPadStatus(row,col+1,time);
- if(status[0]) SETBIT(ipos, AliTRDcluster::kMaskedLeft);
-
- Float_t signalR = TMath::Abs(digitsOut->GetData(row,col-1,time));
- status[2] = digitsIn->GetPadStatus(row,col-1,time);
- if(status[2]) SETBIT(ipos, AliTRDcluster::kMaskedRight);
-
- // reject candidates with more than 1 problematic pad
- if(ipos == 3 || ipos > 4) continue;
-
- if (!status[1]) { // good central pad
- if (!ipos) { // all pads are OK
- if ((signalL <= signalM) && (signalR < signalM)) {
- if ((signalL >= sigThresh) || (signalR >= sigThresh)) {
- Float_t noiseSumThresh = minLeftRightCutSigma
- * calNoiseDetValue
- * calNoiseROC->GetValue(col,row);
- if ((signalL+signalR+signalM) >= noiseSumThresh) {
- // Maximum found, mark the position by a negative signal
- digitsOut->SetData(row,col,time,-signalM);
- fIndexesMaxima->AddIndexTBin(row,col,time);
- padStatus.SetData(row, col, time, ipos); // No corruption
- }
- }
- }
- } else { // one of the neighbouring pads are bad
- if (status[0] && signalR < signalM && signalR >= sigThresh) {
- digitsOut->SetData(row,col,time,-signalM);
- digitsOut->SetData(row, col, time+1, 0.);
- fIndexesMaxima->AddIndexTBin(row,col,time);
- SetPadStatus(status[0], ipos);
- padStatus.SetData(row, col, time, ipos);
- }
- else if (status[2] && signalL <= signalM && signalL >= sigThresh) {
- digitsOut->SetData(row,col,time,-signalM);
- digitsOut->SetData(row, col, time-1, 0.);
- fIndexesMaxima->AddIndexTBin(row,col,time);
- SetPadStatus(status[2], ipos);
- padStatus.SetData(row, col, time, ipos);
- }
- }
- }
- else { // wrong maximum pad
- if ((signalL >= sigThresh) || (signalR >= sigThresh)) {
- // Maximum found, mark the position by a negative signal
- digitsOut->SetData(row,col,time,-maxThresh);
- fIndexesMaxima->AddIndexTBin(row,col,time);
- SetPadStatus(status[1], ipos);
- padStatus.SetData(row, col, time, ipos);
- }
- }
+ if (fAddLabels) {
+ AddLabels(fDet,firstClusterROC,fClusterROC);
}
- // The index to the first cluster of a given ROC
- Int_t firstClusterROC = -1;
- // The number of cluster in a given ROC
- Int_t nClusterROC = 0;
+ return kTRUE;
- // Now check the maxima and calculate the cluster position
- fIndexesMaxima->ResetCounters();
- while (fIndexesMaxima->NextRCTbinIndex(row, col, time)) {
+}
- // Maximum found ?
- if (digitsOut->GetData(row,col,time) < 0.0) {
+//_____________________________________________________________________________
+Bool_t AliTRDclusterizer::IsMaximum(const Int_t row, const Int_t col, const Int_t time,
+ UChar_t &pasStatus, Double_t *const Signals)
+{
+ //
+ // Returns true if this row,col,time combination is a maximum.
+ // Gives back the padStatus and the signals of the center pad and the two neighbouring pads.
+ //
- for (iPad = 0; iPad < kNclus; iPad++) {
- Int_t iPadCol = col - 1 + iPad;
- clusterSignal[iPad] = TMath::Abs(digitsOut->GetData(row,iPadCol,time));
- }
+ Signals[1] = fDigitsOut->GetData(row,col,time);
+ if(Signals[1] < fMaxThresh) return kFALSE;
- // Count the number of pads in the cluster
- Int_t nPadCount = 0;
- Int_t ii;
- // Look to the right
- ii = 0;
- while (TMath::Abs(digitsOut->GetData(row,col-ii ,time)) >= sigThresh) {
- nPadCount++;
- ii++;
- if (col-ii < 0) break;
- }
- // Look to the left
- ii = 0;
- while (TMath::Abs(digitsOut->GetData(row,col+ii+1,time)) >= sigThresh) {
- nPadCount++;
- ii++;
- if (col+ii+1 >= nColMax) break;
- }
- nClusters++;
+ Float_t noiseMiddleThresh = fMinMaxCutSigma*fCalNoiseDetValue*fCalNoiseROC->GetValue(col,row);
+ if (Signals[1] < noiseMiddleThresh) return kFALSE;
- // Look for 5 pad cluster with minimum in the middle
- Bool_t fivePadCluster = kFALSE;
- if (col < (nColMax - 3)){
- if (digitsOut->GetData(row,col+2,time) < 0) {
- fivePadCluster = kTRUE;
- }
- if ((fivePadCluster) && (col < (nColMax - 5))) {
- if (digitsOut->GetData(row,col+4,time) >= sigThresh) {
- fivePadCluster = kFALSE;
- }
- }
- if ((fivePadCluster) && (col > 1)) {
- if (digitsOut->GetData(row,col-2,time) >= sigThresh) {
- fivePadCluster = kFALSE;
- }
- }
- }
+ if (col + 1 >= fColMax || col < 1) return kFALSE;
+ UChar_t status[3]={0, 0, 0};
+ pasStatus = 0;
- // 5 pad cluster
- // Modify the signal of the overlapping pad for the left part
- // of the cluster which remains from a previous unfolding
- if (iUnfold) {
- clusterSignal[0] *= ratioLeft;
- iUnfold = 0;
- }
+ status[1] = fDigitsIn->GetPadStatus(row,col,time);
+ //if(status[1]) SETBIT(pasStatus, AliTRDcluster::kMaskedCenter);//TR: mod: this is already done by SetPadStatus
- // Unfold the 5 pad cluster
- if (fivePadCluster) {
- for (iPad = 0; iPad < kNsig; iPad++) {
- padSignal[iPad] = TMath::Abs(digitsOut->GetData(row
- ,col-1+iPad
- ,time));
- }
- // Unfold the two maxima and set the signal on
- // the overlapping pad to the ratio
- ratioRight = Unfold(kEpsilon,ilayer,padSignal);
- ratioLeft = 1.0 - ratioRight;
- clusterSignal[2] *= ratioRight;
- iUnfold = 1;
+ Signals[2] = fDigitsOut->GetData(row,col+1,time);
+ status[2] = fDigitsIn->GetPadStatus(row,col+1,time);
+ //if(status[2]) SETBIT(pasStatus, AliTRDcluster::kMaskedLeft);//TR: mod: this is already done by SetPadStatus
+
+ Signals[0] = fDigitsOut->GetData(row,col-1,time);
+ status[0] = fDigitsIn->GetPadStatus(row,col-1,time);
+ //if(status[0]) SETBIT(pasStatus, AliTRDcluster::kMaskedRight);//TR: mod: this is already done by SetPadStatus
+
+ // reject candidates with more than 1 problematic pad
+ if(pasStatus >= 3) return kFALSE;
+
+ if (!status[1]) { // good central pad
+ if (!pasStatus) { // all pads are OK
+ if ((Signals[2] <= Signals[1]) && (Signals[0] < Signals[1])) {
+ if ((Signals[2] >= fSigThresh) || (Signals[0] >= fSigThresh)) {
+ Float_t noiseSumThresh = fMinLeftRightCutSigma
+ * fCalNoiseDetValue
+ * fCalNoiseROC->GetValue(col,row);
+ if ((Signals[2]+Signals[0]+Signals[1]) >= noiseSumThresh)
+ return kTRUE;
+ }
}
-
- // The position of the cluster in COL direction relative to the center pad (pad units)
- Double_t clusterPosCol = 0.0;
- if (fReconstructor->GetRecoParam()->IsLUT()) {
- // Calculate the position of the cluster by using the
- // lookup table method
- clusterPosCol = LUTposition(ilayer,clusterSignal[0]
- ,clusterSignal[1]
- ,clusterSignal[2]);
+ } else { // one of the neighbouring pads are bad
+ if (status[2] && Signals[0] < Signals[1] && Signals[0] >= fSigThresh) {
+ fDigitsOut->SetData(row, col+1, time, 0.);//TR: mod: was: SetData(row, col, time+1, 0.)
+ SetPadStatus(status[2], pasStatus);
+ return kTRUE;
}
- else {
- // Calculate the position of the cluster by using the
- // center of gravity method
- for (Int_t i = 0; i < kNsig; i++) {
- padSignal[i] = 0.0;
- }
- padSignal[2] = TMath::Abs(digitsOut->GetData(row,col ,time)); // Central pad
- padSignal[3] = TMath::Abs(digitsOut->GetData(row,col+1,time)); // Left pad
- padSignal[1] = TMath::Abs(digitsOut->GetData(row,col-1,time)); // Right pad
- if ((col > 2) &&
- (TMath::Abs(digitsOut->GetData(row,col-2,time)) < padSignal[1])) {
- padSignal[4] = TMath::Abs(digitsOut->GetData(row,col-2,time));
- }
- if ((col < nColMax - 3) &&
- (TMath::Abs(digitsOut->GetData(row,col+2,time)) < padSignal[3])) {
- padSignal[0] = TMath::Abs(digitsOut->GetData(row,col+2,time));
- }
- clusterPosCol = GetCOG(padSignal);
+ else if (status[0] && Signals[2] <= Signals[1] && Signals[2] >= fSigThresh) {
+ fDigitsOut->SetData(row, col-1, time, 0.);//TR: mod: was: SetData(row, col, time-1, 0.)
+ SetPadStatus(status[0], pasStatus);
+ return kTRUE;
}
+ }
+ }
+ else { // wrong maximum pad
+ if ((Signals[2] >= fSigThresh) || (Signals[0] >= fSigThresh)) {
+ fDigitsOut->SetData(row,col,time,fMaxThresh);
+ SetPadStatus(status[1], pasStatus);
+ return kTRUE;
+ }
+ }
+ return kFALSE;
+}
- // Store the amplitudes of the pads in the cluster for later analysis
- // and check whether one of these pads is masked in the database
- Short_t signals[7] = { 0, 0, 0, 0, 0, 0, 0 };
- for (Int_t jPad = col-3; jPad <= col+3; jPad++) {
- if ((jPad < 0) ||
- (jPad >= nColMax-1)) {
- continue;
- }
- signals[jPad-col+3] = TMath::Nint(TMath::Abs(digitsOut->GetData(row,jPad,time)));
- }
-
- // Transform the local cluster coordinates into calibrated
- // space point positions defined in the local tracking system.
- // Here the calibration for T0, Vdrift and ExB is applied as well.
- Double_t clusterXYZ[6];
- clusterXYZ[0] = clusterPosCol;
- clusterXYZ[1] = clusterSignal[2];
- clusterXYZ[2] = clusterSignal[1];
- clusterXYZ[3] = clusterSignal[0];
- clusterXYZ[4] = 0.0;
- clusterXYZ[5] = 0.0;
- Int_t clusterRCT[3];
- clusterRCT[0] = row;
- clusterRCT[1] = col;
- clusterRCT[2] = 0;
-
- Bool_t out = kTRUE;
- if (fTransform->Transform(clusterXYZ,clusterRCT,((UInt_t) time),out,0)) {
-
- // Add the cluster to the output array
- // The track indices will be stored later
- Float_t clusterPos[3];
- clusterPos[0] = clusterXYZ[0];
- clusterPos[1] = clusterXYZ[1];
- clusterPos[2] = clusterXYZ[2];
- Float_t clusterSig[2];
- clusterSig[0] = clusterXYZ[4];
- clusterSig[1] = clusterXYZ[5];
- Double_t clusterCharge = clusterXYZ[3];
- Char_t clusterTimeBin = ((Char_t) clusterRCT[2]);
-
- Int_t n = RecPoints()->GetEntriesFast();
- AliTRDcluster *cluster = new((*RecPoints())[n]) AliTRDcluster(
- idet,
- clusterCharge, clusterPos, clusterSig,
- 0x0,
- ((Char_t) nPadCount),
- signals,
- ((UChar_t) col), ((UChar_t) row), ((UChar_t) time),
- clusterTimeBin, clusterPosCol,
- volid);
- cluster->SetInChamber(!out);
-
- UChar_t maskPosition = GetCorruption(padStatus.GetData(row, col, time));
- UChar_t padstatus = GetPadStatus(padStatus.GetData(row, col, time));
- if (maskPosition) {
- cluster->SetPadMaskedPosition(maskPosition);
- cluster->SetPadMaskedStatus(padstatus);
- }
-
- // Temporarily store the row, column and time bin of the center pad
- // Used to later on assign the track indices
- cluster->SetLabel( row,0);
- cluster->SetLabel( col,1);
- cluster->SetLabel(time,2);
+//_____________________________________________________________________________
+Bool_t AliTRDclusterizer::IsFivePadCluster(const Int_t row, const Int_t col, const Int_t time,
+ Double_t *SignalsThisMax, Double_t *SignalsNeighbourMax, Double_t &ratio)
+{
+ //
+ // Look for 5 pad cluster with minimum in the middle
+ // Gives back the ratio
+ //
- // Store the index of the first cluster in the current ROC
- if (firstClusterROC < 0) {
- firstClusterROC = RecPoints()->GetEntriesFast() - 1;
- }
+ if (col < fColMax - 3){
+ if (col < fColMax - 5){
+ if (fDigitsOut->GetData(row,col+4,time) >= fSigThresh)
+ return kFALSE;
+ }
+ if (col > 1) {
+ if (fDigitsOut->GetData(row,col-2,time) >= fSigThresh)
+ return kFALSE;
+ }
+
+ //if (fSignalsThisMax[1] >= 0){ //TR: mod
- // Count the number of cluster in the current ROC
- nClusterROC++;
+ const Float_t kEpsilon = 0.01;
+ Double_t padSignal[5] = {SignalsThisMax[0],SignalsThisMax[1],SignalsThisMax[2],
+ SignalsNeighbourMax[1], SignalsNeighbourMax[2]};
+
+ // Unfold the two maxima and set the signal on
+ // the overlapping pad to the ratio
+ ratio = Unfold(kEpsilon,fLayer,padSignal);
+ return kTRUE;
+ }
+ return kFALSE;
+}
- } // if: Transform ok ?
+//_____________________________________________________________________________
+void AliTRDclusterizer::CreateCluster(const Int_t row, const Int_t col, const Int_t time,
+ const Double_t* const clusterSignal, const UChar_t pasStatus)
+{
+ //
+ // Creates a cluster at the given position and saves it in fRecPoint
+ //
- } // if: Maximum found ?
+ const Int_t kNsig = 5;
+ Double_t padSignal[kNsig];
+ // The position of the cluster in COL direction relative to the center pad (pad units)
+ Double_t clusterPosCol = 0.0;
+ if (fReconstructor->GetRecoParam()->IsLUT()) {
+ // Calculate the position of the cluster by using the
+ // lookup table method
+ clusterPosCol = LUTposition(fLayer,clusterSignal[0]
+ ,clusterSignal[1]
+ ,clusterSignal[2]);
+ }
+ else {
+ // Calculate the position of the cluster by using the
+ // center of gravity method
+ padSignal[1] = clusterSignal[0];
+ padSignal[2] = clusterSignal[1];
+ padSignal[3] = clusterSignal[2];
+ if(col > 2){
+ padSignal[0] = fDigitsOut->GetData(row,col-2,time);
+ if(padSignal[0]>= padSignal[1])
+ padSignal[0] = 0;
+ }
+ if(col < fColMax - 3){
+ padSignal[4] = fDigitsOut->GetData(row,col+2,time);
+ if(padSignal[4]>= padSignal[3])
+ padSignal[4] = 0;
+ }
+ clusterPosCol = GetCOG(padSignal);
}
- if(fReconstructor->GetStreamLevel(AliTRDReconstructor::kClusterizer) > 2){
- (*fDebugStream) << "MakeClusters"
- << "Detector=" << det
- << "NMaxima=" << nMaximas
- << "NClusters=" << nClusterROC
- << "NCorrupted=" << nCorrupted
- << "\n";
+ // Count the number of pads in the cluster
+ Int_t nPadCount = 1;
+ // Look to the right
+ Int_t ii = 1;
+ while (fDigitsOut->GetData(row, col-ii, time) >= fSigThresh) {
+ nPadCount++;
+ ii++;
+ if (col-ii < 0) break;
+ }
+ // Look to the left
+ ii = 1;
+ while (fDigitsOut->GetData(row, col+ii, time) >= fSigThresh) {
+ nPadCount++;
+ ii++;
+ if (col+ii >= fColMax) break;
}
- delete digitsOut;
+ // Store the amplitudes of the pads in the cluster for later analysis
+ // and check whether one of these pads is masked in the database
+ Short_t signals[7] = { 0, 0, 0, 0, 0, 0, 0 };
+ for(Int_t i = 0; i++; i<3)
+ signals[i+2] = TMath::Nint(clusterSignal[i]);
+ for(Int_t i = 0; i++; i<2)
+ {
+ if(col+i >= 3)
+ signals[i] = TMath::Nint(fDigitsOut->GetData(row,col-3+i,time));
+ if(col+3-i < fColMax)
+ signals[7-i] = TMath::Nint(fDigitsOut->GetData(row,col+3-i,time));
+ }
+ /*for (Int_t jPad = col-3; jPad <= col+3; jPad++) {
+ if ((jPad >= 0) && (jPad < fColMax))
+ signals[jPad-col+3] = TMath::Nint(fDigitsOut->GetData(row,jPad,time));
+ }*/
+
+ // Transform the local cluster coordinates into calibrated
+ // space point positions defined in the local tracking system.
+ // Here the calibration for T0, Vdrift and ExB is applied as well.
+ Double_t clusterXYZ[6];
+ clusterXYZ[0] = clusterPosCol;
+ clusterXYZ[1] = clusterSignal[2];
+ clusterXYZ[2] = clusterSignal[1];
+ clusterXYZ[3] = clusterSignal[0];
+ clusterXYZ[4] = 0.0;
+ clusterXYZ[5] = 0.0;
+ Int_t clusterRCT[3];
+ clusterRCT[0] = row;
+ clusterRCT[1] = col;
+ clusterRCT[2] = 0;
+
+ Bool_t out = kTRUE;
+ if (fTransform->Transform(clusterXYZ,clusterRCT,((UInt_t) time),out,0)) {
+
+ // Add the cluster to the output array
+ // The track indices will be stored later
+ Float_t clusterPos[3];
+ clusterPos[0] = clusterXYZ[0];
+ clusterPos[1] = clusterXYZ[1];
+ clusterPos[2] = clusterXYZ[2];
+ Float_t clusterSig[2];
+ clusterSig[0] = clusterXYZ[4];
+ clusterSig[1] = clusterXYZ[5];
+ Double_t clusterCharge = clusterXYZ[3];
+ Char_t clusterTimeBin = ((Char_t) clusterRCT[2]);
+
+ Int_t n = RecPoints()->GetEntriesFast();
+ AliTRDcluster *cluster = new((*RecPoints())[n]) AliTRDcluster(
+ fDet,
+ clusterCharge, clusterPos, clusterSig,
+ 0x0,
+ ((Char_t) nPadCount),
+ signals,
+ ((UChar_t) col), ((UChar_t) row), ((UChar_t) time),
+ clusterTimeBin, clusterPosCol,
+ fVolid);
+ cluster->SetInChamber(!out);
+
+ UChar_t maskPosition = GetCorruption(pasStatus);
+ UChar_t padstatus = GetPadStatus(pasStatus);
+ if (maskPosition) {
+ cluster->SetPadMaskedPosition(maskPosition);
+ cluster->SetPadMaskedStatus(padstatus);
+ }
+
+ // Temporarily store the row, column and time bin of the center pad
+ // Used to later on assign the track indices
+ cluster->SetLabel(row, 0);
+ cluster->SetLabel(col, 1);
+ cluster->SetLabel(time,2);
- if (fAddLabels) {
- AddLabels(idet,firstClusterROC,nClusterROC);
- }
+ // Store the index of the first cluster in the current ROC
+ if (firstClusterROC < 0) {
+ firstClusterROC = RecPoints()->GetEntriesFast() - 1;
+ }
- return kTRUE;
+ // Count the number of cluster in the current ROC
+ fClusterROC++;
+ }
}
//_____________________________________________________________________________
-Bool_t AliTRDclusterizer::AddLabels(Int_t idet, Int_t firstClusterROC, Int_t nClusterROC)
+Bool_t AliTRDclusterizer::AddLabels(const Int_t idet, const Int_t firstClusterROC, const Int_t nClusterROC)
{
//
// Add the track indices to the found clusters
}
//_____________________________________________________________________________
-Double_t AliTRDclusterizer::Unfold(Double_t eps, Int_t layer, Double_t *padSignal)
+Double_t AliTRDclusterizer::Unfold(Double_t eps, Int_t layer, Double_t *padSignal) const
{
//
// Method to unfold neighbouring maxima.
// Cluster position according to charge ratio
Double_t maxLeft = (ratio*padSignal[2] - padSignal[0])
- / (padSignal[0] + padSignal[1] + ratio*padSignal[2]);
+ / (padSignal[0] + padSignal[1] + ratio * padSignal[2]);
Double_t maxRight = (padSignal[4] - (1-ratio)*padSignal[2])
/ ((1.0 - ratio)*padSignal[2] + padSignal[3] + padSignal[4]);
// Set cluster charge ratio
- irc = calibration->PadResponse(1.0,maxLeft ,layer,newSignal);
+ irc = calibration->PadResponse(1.0, maxLeft, layer, newSignal);
Double_t ampLeft = padSignal[1] / newSignal[1];
- irc = calibration->PadResponse(1.0,maxRight,layer,newSignal);
+ irc = calibration->PadResponse(1.0, maxRight, layer, newSignal);
Double_t ampRight = padSignal[3] / newSignal[1];
// Apply pad response to parameters
}
//_____________________________________________________________________________
-void AliTRDclusterizer::TailCancelation(AliTRDarrayADC *digitsIn
- , AliTRDarraySignal *digitsOut
- , AliTRDSignalIndex *indexesIn
- , AliTRDSignalIndex *indexesOut
- , Int_t nTimeTotal
- , Float_t adcThreshold
- , AliTRDCalROC *calGainFactorROC
- , Float_t calGainFactorDetValue)
+void AliTRDclusterizer::TailCancelation()
{
//
// Applies the tail cancelation and gain factors:
- // Transform digitsIn to digitsOut
+ // Transform fDigitsIn to fDigitsOut
//
Int_t iRow = 0;
Int_t iCol = 0;
Int_t iTime = 0;
- Double_t *inADC = new Double_t[nTimeTotal]; // ADC data before tail cancellation
- Double_t *outADC = new Double_t[nTimeTotal]; // ADC data after tail cancellation
- indexesIn->ResetCounters();
+ Double_t *inADC = new Double_t[fTimeTotal]; // ADC data before tail cancellation
+ Double_t *outADC = new Double_t[fTimeTotal]; // ADC data after tail cancellation
+ fIndexes->ResetCounters();
TTreeSRedirector *fDebugStream = fReconstructor->GetDebugStream(AliTRDReconstructor::kClusterizer);
- while (indexesIn->NextRCIndex(iRow, iCol))
+ while(fIndexes->NextRCIndex(iRow, iCol))
{
- Float_t calGainFactorROCValue = calGainFactorROC->GetValue(iCol,iRow);
- Double_t gain = calGainFactorDetValue
- * calGainFactorROCValue;
+ Float_t fCalGainFactorROCValue = fCalGainFactorROC->GetValue(iCol,iRow);
+ Double_t gain = fCalGainFactorDetValue
+ * fCalGainFactorROCValue;
Bool_t corrupted = kFALSE;
- for (iTime = 0; iTime < nTimeTotal; iTime++)
+ for (iTime = 0; iTime < fTimeTotal; iTime++)
{
// Apply gain gain factor
- inADC[iTime] = digitsIn->GetDataB(iRow,iCol,iTime);
- if (digitsIn->GetPadStatus(iRow, iCol, iTime)) corrupted = kTRUE;
+ inADC[iTime] = fDigitsIn->GetDataB(iRow,iCol,iTime);
+ if (fDigitsIn->GetPadStatus(iRow, iCol, iTime)) corrupted = kTRUE;
inADC[iTime] /= gain;
outADC[iTime] = inADC[iTime];
if(fReconstructor->GetStreamLevel(AliTRDReconstructor::kClusterizer) > 7){
{
// Apply the tail cancelation via the digital filter
// (only for non-coorupted pads)
- if (fReconstructor->GetRecoParam() ->IsTailCancelation())
- {
- DeConvExp(inADC,outADC,nTimeTotal,fReconstructor->GetRecoParam() ->GetTCnexp());
- }
+ if (fReconstructor->GetRecoParam()->IsTailCancelation())
+ DeConvExp(inADC,outADC,fTimeTotal,fReconstructor->GetRecoParam() ->GetTCnexp());
}
- indexesIn->ResetTbinCounter();
-
- while (indexesIn->NextTbinIndex(iTime))
+ for(iTime = 0; iTime < fTimeTotal; iTime++)//while (fIndexes->NextTbinIndex(iTime))
{
// Store the amplitude of the digit if above threshold
- if (outADC[iTime] > adcThreshold)
- {
- digitsOut->SetData(iRow,iCol,iTime,outADC[iTime]);
- indexesOut->AddIndexTBin(iRow,iCol,iTime);
- }
+ if (outADC[iTime] > fADCthresh)
+ fDigitsOut->SetData(iRow,iCol,iTime,outADC[iTime]);
} // while itime
} // while irow icol
}
//_____________________________________________________________________________
-void AliTRDclusterizer::DeConvExp(Double_t *source, Double_t *target
- , Int_t n, Int_t nexp)
+void AliTRDclusterizer::DeConvExp(const Double_t *const source, Double_t *const target
+ ,const Int_t n, const Int_t nexp)
{
//
// Tail cancellation by deconvolution for PASA v4 TRF
git://git.uio.no / u / mrichter / AliRoot.git / commitdiff