#include "AliITSgeomTGeo.h"
#include "AliRawEventHeaderBase.h"
#include "AliITSRecPoint.h"
-#include "AliITSdigit.h"
+#include "AliITSdigitSSD.h"
#include "AliITSBadChannelsSSDv2.h"
#include "AliCDBManager.h"
void AliITSQASSDDataMakerRec::EndOfDetectorCycle(AliQAv1::TASKINDEX_t /*task*/, TObjArray* /*list*/)
{
// launch the QA checking
- if ( fAliITSQADataMakerRec->GetRawsData(0) == NULL ) // Raws not defined
- return ;
// launch the QA checking
AliDebug(AliQAv1::GetQADebugLevel(),"AliITSDM instantiates checker with Run(AliQAv1::kITS, task, list)\n");
AliDebug(AliQAv1::GetQADebugLevel(), Form("Offset: %d\n",fGenRawsOffset));
- //Data size per DDL
- for(Int_t i = 0; i < fgkNumOfDDLs; i++) {
- Double_t gSizePerDDL = TMath::Power(10,(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+5+i))->GetMean())/1e+06;
- //cout<<"DDL: "<<i+2<<" - Size: "<<gSizePerDDL<<" - Mean: "<<
- //(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+5+i))->GetMean()<<endl;
- ((TH1D *)(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+4)))->SetBinContent(i+2,gSizePerDDL);
- }
-
- //Data size per LDC
- for(Int_t i = 0; i < fgkNumOfLDCs; i++) {
- Double_t gSizePerLDC = TMath::Power(10,(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+23+i))->GetMean())/1e+06;
- ((TH1D *)(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+22)))->SetBinContent(i+6,gSizePerLDC);
- }
+
+ if (fAliITSQADataMakerRec->GetRawsData(0) != NULL ) {
+ //Data size per DDL
+ for(Int_t i = 0; i < fgkNumOfDDLs; i++) {
+ Double_t gSizePerDDL = ((TH1D *)fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+5+i))->GetMean();
+ //cout<<"DDL: "<<i+2<<" - Size: "<<gSizePerDDL<<" - Mean: "<<
+ //(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+5+i))->GetMean()<<endl;
+ ((TH1D *)(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+4)))->SetBinContent(i+2,gSizePerDDL);
+ }
+
+ //Data size per LDC
+ for(Int_t i = 0; i < fgkNumOfLDCs; i++) {
+ Double_t gSizePerLDC = ((TH1F *)fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+23+i))->GetMean();
+ ((TH1D *)(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+22)))->SetBinContent(i+6,gSizePerLDC);
+ }
+ }//raw data end of cycle
//online part
if(fkOnline) {
AliDebug(AliQAv1::GetQADebugLevel(), Form("Number of histograms (SPD+SDD): %d\n",fGenRawsOffset));
TString gTitle = 0;
//book online-offline QA histos
- TH1D *fHistSSDEventType = new TH1D("SSD/DataSize/fHistSSDEventType",
+ TH1D *fHistSSDEventType = new TH1D("fHistSSDEventType",
";Event type;Events",
31,-1,30);
fAliITSQADataMakerRec->Add2RawsList(fHistSSDEventType,
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1;
- TH1D *fHistSSDDataSize = new TH1D("SSD/DataSize/fHistSSDDataSize",
- ";log(SSD data size) [Bytes];Events",
- 100,3,8);
+ TH1D *fHistSSDDataSize = new TH1D("fHistSSDDataSize",
+ ";(SSD data size) [KB];Events",
+ 1000,0,500);
fAliITSQADataMakerRec->Add2RawsList(fHistSSDDataSize,
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1;
- TH1D *fHistSSDDataSizePercentage = new TH1D("SSD/DataSize/fHistSSDDataSizePercentage",
+ TH1D *fHistSSDDataSizePercentage = new TH1D("fHistSSDDataSizePercentage",
";SSD data size [%];Events",
- 100,0,100);
+ 1000,0,100);
fAliITSQADataMakerRec->Add2RawsList(fHistSSDDataSizePercentage,
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1;
- TH1D *fHistSSDDDLId = new TH1D("SSD/DDL/fHistSSDDDLId",
+ TH1D *fHistSSDDDLId = new TH1D("fHistSSDDDLId",
";DDL id;Events",20,510.5,530.5);
fAliITSQADataMakerRec->Add2RawsList(fHistSSDDDLId,
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1;
- TH1D *fHistSSDDataSizePerDDL = new TH1D("SSD/DataSize/fHistSSDDataSizePerDDL",
- ";DDL id;<SSD data size> [MB]",
+ TH1D *fHistSSDDataSizePerDDL = new TH1D("fHistSSDDataSizePerDDL",
+ ";DDL id;<SSD data size> [KB]",
20,510.5,530.5);
fAliITSQADataMakerRec->Add2RawsList(fHistSSDDataSizePerDDL,
fGenRawsOffset+fSSDRawsOffset, !expert, image, !saveCorr);
fSSDRawsOffset += 1;
TH1D *fHistSSDDataSizeDDL[fgkNumOfDDLs];
for(Int_t i = 1; i < fgkNumOfDDLs+1; i++) {
- gTitle = "SSD/DDL/fHistSSDDataSizeDDL"; gTitle += i+511;
+ gTitle = "fHistSSDDataSizeDDL"; gTitle += i+511;
fHistSSDDataSizeDDL[i-1] = new TH1D(gTitle.Data(),
- ";log(SSD data size) [Bytes];Events",
- 100,1,8);
+ ";(SSD data size) [KB];Events",
+ 1000,0,50);
fAliITSQADataMakerRec->Add2RawsList(fHistSSDDataSizeDDL[i-1],
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1;
}
- TH1D *fHistSSDLDCId = new TH1D("SSD/LDC/fHistSSDLDCId",";LDC id;Events",10,0.5,10.5);
+ TH1D *fHistSSDLDCId = new TH1D("fHistSSDLDCId",";LDC id;Events",10,0.5,10.5);
fAliITSQADataMakerRec->Add2RawsList(fHistSSDLDCId,
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1;
- TH1D *fHistSSDDataSizePerLDC = new TH1D("SSD/DataSize/fHistSSDDataSizePerLDC",
- ";LDC id;<SSD data size> [MB]",
+ TH1D *fHistSSDDataSizePerLDC = new TH1D("fHistSSDDataSizePerLDC",
+ ";LDC id;<SSD data size> [KB]",
20,0.5,20.5);
fAliITSQADataMakerRec->Add2RawsList(fHistSSDDataSizePerLDC,
fGenRawsOffset+fSSDRawsOffset, !expert, image, !saveCorr);
fSSDRawsOffset += 1;
TH1D *fHistSSDDataSizeLDC[fgkNumOfLDCs];
for(Int_t i = 1; i < fgkNumOfLDCs+1; i++) {
- gTitle = "SSD/LDC/fHistSSDDataSizeLDC";
+ gTitle = "fHistSSDDataSizeLDC";
if(i == 1) gTitle += "082";
if(i == 2) gTitle += "086";
if(i == 3) gTitle += "085";
fHistSSDDataSizeLDC[i-1] = new TH1D(gTitle.Data(),
- ";log(SSD data size) [Bytes];Events",
- 100,1,8);
+ ";SSD data size [KB];Events",
+ 1000,0,100);
fAliITSQADataMakerRec->Add2RawsList(fHistSSDDataSizeLDC[i-1],
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1;
TH1D *fHistSSDOccupancyModule[fgkSSDMODULES];
for(Int_t i = 500; i < fgkSSDMODULES + 500; i++) {
AliITSgeomTGeo::GetModuleId(i,gLayer,gLadder,gModule);
- gTitle = "SSD/Occupancy/Layer"; gTitle += gLayer;
- gTitle += "/Ladder";
+ gTitle = "fHistSSD_Occupancy_Layer";
if(gLayer == 5) {
- gTitle += 499+gLadder;
- gTitle += "/fHistSSD_Occupancy_Layer"; gTitle += gLayer;
- gTitle += "_Ladder";
+ gTitle += gLayer; gTitle += "_Ladder";
gTitle += 499+gLadder;
}
if(gLayer == 6) {
- gTitle += 599+gLadder;
- gTitle += "/fHistSSD_Occupancy_Layer"; gTitle += gLayer;
- gTitle += "_Ladder";
+ gTitle += gLayer; gTitle += "_Ladder";
gTitle += 599+gLadder;
}
gTitle += "_Module"; gTitle += gModule;
for(Int_t iLayer = 5; iLayer < 7; iLayer++) {
for(Int_t iLadder = 1; iLadder < AliITSgeomTGeo::GetNLadders(iLayer) + 1; iLadder++) {
//P-side occupancy plots
- gTitle = "SSD/Occupancy/Layer"; gTitle += iLayer;
- gTitle += "/Ladder";
+ gTitle = "fHistSSD_Occupancy_Layer";
if(iLayer == 5) {
- gTitle += 499+iLadder;
- gTitle += "/fHistSSD_Occupancy_Layer"; gTitle += iLayer;
- gTitle += "_Ladder";
+ gTitle += iLayer; gTitle += "_Ladder";
gTitle += 499+iLadder;
}
if(iLayer == 6) {
- gTitle += 599+iLadder;
- gTitle += "/fHistSSD_Occupancy_Layer"; gTitle += iLayer;
- gTitle += "_Ladder";
+ gTitle += iLayer; gTitle += "_Ladder";
gTitle += 599+iLadder;
}
gTitle += "_PSide";
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
occupancyCounter += 1; fSSDRawsOffset += 1;
//N-side occupancy plots
- gTitle = "SSD/Occupancy/Layer"; gTitle += iLayer;
- gTitle += "/Ladder";
+ gTitle = "fHistSSD_Occupancy_Layer";
if(iLayer == 5) {
- gTitle += 499+iLadder;
- gTitle += "/fHistSSD_Occupancy_Layer"; gTitle += iLayer;
- gTitle += "_Ladder";
+ gTitle += iLayer; gTitle += "_Ladder";
gTitle += 499+iLadder;
}
if(iLayer == 6) {
- gTitle += 599+iLadder;
- gTitle += "/fHistSSD_Occupancy_Layer"; gTitle += iLayer;
- gTitle += "_Ladder";
+ gTitle += iLayer; gTitle += "_Ladder";
gTitle += 599+iLadder;
}
gTitle += "_NSide";
//top level occupancy plots
//occupancy per module - no threshold
- TH2D *fHistSSDOccupancyLayer5 = new TH2D("SSD/Occupancy/Layer5/fHistSSDOccupancyLayer5",
+ TH2D *fHistSSDOccupancyLayer5 = new TH2D("fHistSSDOccupancyLayer5",
";N_{modules};N_{Ladders}",
fgkSSDMODULESPERLADDERLAYER5,
0,fgkSSDMODULESPERLADDERLAYER5,
fAliITSQADataMakerRec->Add2RawsList(fHistSSDOccupancyLayer5,
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1;
- TH2D *fHistSSDOccupancyLayer6 = new TH2D("SSD/Occupancy/Layer6/fHistSSDOccupancyLayer6",
+ TH2D *fHistSSDOccupancyLayer6 = new TH2D("fHistSSDOccupancyLayer6",
";N_{modules};N_{Ladders}",
fgkSSDMODULESPERLADDERLAYER6,
0,fgkSSDMODULESPERLADDERLAYER6,
fSSDRawsOffset += 1;
//occupancy per module - threshold @ 3%
- TH2D *fHistSSDOccupancyThresholdLayer5 = new TH2D("SSD/Occupancy/Layer5/fHistSSDOccupancyThresholdLayer5",
- ";N_{modules};N_{Ladders}",
- fgkSSDMODULESPERLADDERLAYER5,
- 0,fgkSSDMODULESPERLADDERLAYER5,
- 3*fgkSSDLADDERSLAYER5,
- 500,500+fgkSSDLADDERSLAYER5);
+ TH2D *fHistSSDOccupancyThresholdLayer5 = new TH2D("fHistSSDOccupancyThresholdLayer5",
+ ";N_{modules};N_{Ladders}",
+ fgkSSDMODULESPERLADDERLAYER5,
+ 0,fgkSSDMODULESPERLADDERLAYER5,
+ 3*fgkSSDLADDERSLAYER5,
+ 500,500+fgkSSDLADDERSLAYER5);
fHistSSDOccupancyThresholdLayer5->SetTitle("Occupancy per module (Layer 5) - Threshold 3%");
fHistSSDOccupancyThresholdLayer5->GetZaxis()->SetRangeUser(3.0,10.0);
for(Int_t iBin = 1; iBin < fgkSSDMODULESPERLADDERLAYER5 + 1; iBin++){
fAliITSQADataMakerRec->Add2RawsList(fHistSSDOccupancyThresholdLayer5,
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1;
- TH2D *fHistSSDOccupancyThresholdLayer6 = new TH2D("SSD/Occupancy/Layer6/fHistSSDOccupancyThresholdLayer6",
- ";N_{modules};N_{Ladders}",
- fgkSSDMODULESPERLADDERLAYER6,
- 0,fgkSSDMODULESPERLADDERLAYER6,
- 3*fgkSSDLADDERSLAYER6,
- 600,600+fgkSSDLADDERSLAYER6);
+ TH2D *fHistSSDOccupancyThresholdLayer6 = new TH2D("fHistSSDOccupancyThresholdLayer6",
+ ";N_{modules};N_{Ladders}",
+ fgkSSDMODULESPERLADDERLAYER6,
+ 0,fgkSSDMODULESPERLADDERLAYER6,
+ 3*fgkSSDLADDERSLAYER6,
+ 600,600+fgkSSDLADDERSLAYER6);
fHistSSDOccupancyThresholdLayer6->SetTitle("Occupancy per module (Layer 6) - Threshold 3%");
fHistSSDOccupancyThresholdLayer6->GetZaxis()->SetRangeUser(3.0,10.0);
for(Int_t iBin = 1; iBin < fgkSSDMODULESPERLADDERLAYER6 + 1; iBin++){
fSSDRawsOffset += 1;
//Average occupancy per module
- TH2D *fHistSSDAverageOccupancyLayer5 = new TH2D("SSD/Occupancy/Layer5/fHistSSDAverageOccupancyLayer5",
- ";N_{modules};N_{Ladders}",
- fgkSSDMODULESPERLADDERLAYER5,
- 0,fgkSSDMODULESPERLADDERLAYER5,
- 3*fgkSSDLADDERSLAYER5,
- 500,500+fgkSSDLADDERSLAYER5);
+ TH2D *fHistSSDAverageOccupancyLayer5 = new TH2D("fHistSSDAverageOccupancyLayer5",
+ ";N_{modules};N_{Ladders}",
+ fgkSSDMODULESPERLADDERLAYER5,
+ 0,fgkSSDMODULESPERLADDERLAYER5,
+ 3*fgkSSDLADDERSLAYER5,
+ 500,500+fgkSSDLADDERSLAYER5);
fHistSSDAverageOccupancyLayer5->SetTitle("Average occupancy per module (Layer 5)");
fHistSSDAverageOccupancyLayer5->GetZaxis()->SetRangeUser(0.0,5.0);
for(Int_t iBin = 1; iBin < fgkSSDMODULESPERLADDERLAYER5 + 1; iBin++){
fAliITSQADataMakerRec->Add2RawsList(fHistSSDAverageOccupancyLayer5,
fGenRawsOffset+fSSDRawsOffset);
fSSDRawsOffset += 1;
- TH2D *fHistSSDAverageOccupancyLayer6 = new TH2D("SSD/Occupancy/Layer6/fHistSSDAverageOccupancyLayer6",
- ";N_{modules};N_{Ladders}",
- fgkSSDMODULESPERLADDERLAYER6,
- 0,fgkSSDMODULESPERLADDERLAYER6,
- 3*fgkSSDLADDERSLAYER6,
- 600,600+fgkSSDLADDERSLAYER6);
+ TH2D *fHistSSDAverageOccupancyLayer6 = new TH2D("fHistSSDAverageOccupancyLayer6",
+ ";N_{modules};N_{Ladders}",
+ fgkSSDMODULESPERLADDERLAYER6,
+ 0,fgkSSDMODULESPERLADDERLAYER6,
+ 3*fgkSSDLADDERSLAYER6,
+ 600,600+fgkSSDLADDERSLAYER6);
fHistSSDAverageOccupancyLayer6->SetTitle("Average occupancy per module (Layer 6)");
fHistSSDAverageOccupancyLayer6->GetZaxis()->SetRangeUser(0.0,5.0);
for(Int_t iBin = 1; iBin < fgkSSDMODULESPERLADDERLAYER6 + 1; iBin++){
fSSDRawsOffset += 1;
//Output of the DA
- TH2D *fHistPSideBadChannelMapLayer5 = new TH2D("SSD/BadChannels/fHistPSideBadChannelMapLayer5",
+ TH2D *fHistPSideBadChannelMapLayer5 = new TH2D("fHistPSideBadChannelMapLayer5",
"Layer 5;N_{module};N_{ladder}",
22,1,23,
34,500,534);
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1; fSSDRawsDAOffset += 1;
- TH2D *fHistNSideBadChannelMapLayer5 = new TH2D("SSD/BadChannels/fHistNSideBadChannelMapLayer5",
+ TH2D *fHistNSideBadChannelMapLayer5 = new TH2D("fHistNSideBadChannelMapLayer5",
"Layer 5;N_{module};N_{ladder}",
22,1,23,
34,500,534);
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1; fSSDRawsDAOffset += 1;
- TH2D *fHistPSideBadChannelMapLayer6 = new TH2D("SSD/BadChannels/fHistPSideBadChannelMapLayer6",
+ TH2D *fHistPSideBadChannelMapLayer6 = new TH2D("fHistPSideBadChannelMapLayer6",
"Layer 6;N_{module};N_{ladder}",
25,1,26,
38,600,638);
fGenRawsOffset+fSSDRawsOffset, expert, !image, !saveCorr);
fSSDRawsOffset += 1; fSSDRawsDAOffset += 1;
- TH2D *fHistNSideBadChannelMapLayer6 = new TH2D("SSD/BadChannels/fHistNSideBadChannelMapLayer6",
+ TH2D *fHistNSideBadChannelMapLayer6 = new TH2D("fHistNSideBadChannelMapLayer6",
"Layer 6;N_{module};N_{ladder}",
25,1,26,
38,600,638);
sumSSDDataSize += gSizePerDDL[i];
if(gSizePerDDL[i] > 0) {
(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+3))->Fill(i+512);
- (fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+5+i))->Fill(TMath::Log10(gSizePerDDL[i]));
+ (fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+5+i))->Fill(gSizePerDDL[i]/1e+03);
}
//(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+4))->Fill(i+512,gSizePerDDL[i]/1e+06);
}
if(i == 2)
gSizePerLDC[i] = gSizePerDDL[0] + gSizePerDDL[1] + gSizePerDDL[2] +
gSizePerDDL[14] + gSizePerDDL[15];
- (fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+23+i))->Fill(TMath::Log10(gSizePerLDC[i]));
+ (fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+23+i))->Fill(gSizePerLDC[i]/1e+03);
//cout<<"Event: "<<fSSDEventPerCycle<<" - LDC: "<<i+6<<
//" - Data size: "<<gSizePerLDC[i]<<endl;
}
//(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+22))->Fill(i+6,gSizePerLDC[i]/1e+06);
}
if(sumSSDDataSize)
- (fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+1))->Fill(TMath::Log10(sumSSDDataSize));
+ (fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+1))->Fill(sumSSDDataSize/1e+03);
if(eventSize)
(fAliITSQADataMakerRec->GetRawsData(fGenRawsOffset+2))->Fill(100.*sumSSDDataSize/eventSize);
// AliITS *fITS = (AliITS*)gAlice->GetModule("ITS");
// fITS->SetTreeAddress();
// TClonesArray *iSSDdigits = fITS->DigitsAddress(2);
- TBranch *branchD = digits->GetBranch("ITS");
+ TBranch *branchD = digits->GetBranch("ITSDigitsSSD");
if (!branchD) {
- AliError("can't get the branch with the ITS digits !");
+ AliError("can't get the branch with the SSD ITS digits !");
return;
}
- static TClonesArray statDigits("AliITSDigit");
+ static TClonesArray statDigits("AliITSDigitSSD");
TClonesArray *iSSDdigits = &statDigits;
branchD->SetAddress(&iSSDdigits);
for(Int_t iModule = 500; iModule < 2198; iModule++) {
Int_t nModuleOffset = 500;
Int_t nITSTotalModules = AliITSgeomTGeo::GetNModules();
- TH1F *fHistSSDModuleIdLayer5 = new TH1F("SSD/Statistics/fHistSSDModuleIdLayer5",
- "Module Id - Layer 5;Module Id;Entries",
- fgkSSDMODULESLAYER5,
- nModuleOffset - 0.5,
- nITSTotalModules-fgkSSDMODULESLAYER6+0.5);
+ TH1F *fHistSSDModuleIdLayer5 = new TH1F("fHistSSDModuleIdLayer5",
+ "Module Id - Layer 5;Module Id;Entries",
+ fgkSSDMODULESLAYER5,
+ nModuleOffset - 0.5,
+ nITSTotalModules-fgkSSDMODULESLAYER6+0.5);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDModuleIdLayer5,
fGenRecPointsOffset + 0, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDModuleIdLayer6 = new TH1F("SSD/Statistics/fHistSSDModuleIdLayer6",
- "Module Id - Layer 6;Module Id;Entries",
- fgkSSDMODULESLAYER6,
- nModuleOffset+fgkSSDMODULESLAYER5 - 0.5,
- nITSTotalModules + 0.5);
+ TH1F *fHistSSDModuleIdLayer6 = new TH1F("fHistSSDModuleIdLayer6",
+ "Module Id - Layer 6;Module Id;Entries",
+ fgkSSDMODULESLAYER6,
+ nModuleOffset+fgkSSDMODULESLAYER5 - 0.5,
+ nITSTotalModules + 0.5);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDModuleIdLayer6,
fGenRecPointsOffset + 1, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDClusterPerEventLayer5 = new TH1F("SSD/Statistics/fHistSSDClusterPerEventLayer5",
- "N_{clusters} - Layer 5;N_{clusters};Entries;",
- 100,0.1,5000);
+ TH1F *fHistSSDClusterPerEventLayer5 = new TH1F("fHistSSDClusterPerEventLayer5",
+ "N_{clusters} - Layer 5;N_{clusters};Entries;",
+ 100,0.1,5000);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDClusterPerEventLayer5,
fGenRecPointsOffset + 2, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDClusterPerEventLayer6 = new TH1F("SSD/Statistics/fHistSSDClusterPerEventLayer6",
- "N_{clusters} - Layer 6;N_{clusters};Entries;",
- 100,0.1,5000);
+ TH1F *fHistSSDClusterPerEventLayer6 = new TH1F("fHistSSDClusterPerEventLayer6",
+ "N_{clusters} - Layer 6;N_{clusters};Entries;",
+ 100,0.1,5000);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDClusterPerEventLayer6,
fGenRecPointsOffset + 3, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDLocalXLayer5 = new TH1F("SSD/Coordinates/fHistSSDLocalXLayer5",
- "Local x coord.- Layer 5;x [cm];Entries;",
- 100,-4.,4.);
+ TH1F *fHistSSDLocalXLayer5 = new TH1F("fHistSSDLocalXLayer5",
+ "Local x coord.- Layer 5;x [cm];Entries;",
+ 100,-4.,4.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDLocalXLayer5,
fGenRecPointsOffset + 4, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDLocalXLayer6 = new TH1F("SSD/Coordinates/fHistSSDLocalXLayer6",
- "Local x coord.- Layer 6;x [cm];Entries;",
- 100,-4.,4.);
+ TH1F *fHistSSDLocalXLayer6 = new TH1F("fHistSSDLocalXLayer6",
+ "Local x coord.- Layer 6;x [cm];Entries;",
+ 100,-4.,4.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDLocalXLayer6,
fGenRecPointsOffset + 5, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDLocalZLayer5 = new TH1F("SSD/Coordinates/fHistSSDLocalZLayer5",
- "Local z coord.- Layer 5;z [cm];Entries;",
- 100,-4.,4.);
+ TH1F *fHistSSDLocalZLayer5 = new TH1F("fHistSSDLocalZLayer5",
+ "Local z coord.- Layer 5;z [cm];Entries;",
+ 100,-4.,4.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDLocalZLayer5,
fGenRecPointsOffset + 6, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDLocalZLayer6 = new TH1F("SSD/Coordinates/fHistSSDLocalZLayer6",
- "Local z coord.- Layer 6;z [cm];Entries;",
- 100,-4.,4.);
+ TH1F *fHistSSDLocalZLayer6 = new TH1F("fHistSSDLocalZLayer6",
+ "Local z coord.- Layer 6;z [cm];Entries;",
+ 100,-4.,4.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDLocalZLayer6,
fGenRecPointsOffset + 7, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDGlobalXLayer5 = new TH1F("SSD/Coordinates/fHistSSDGlobalXLayer5",
- "Global x - Layer 5;x [cm];Entries;",
- 100,-40.,40.);
+ TH1F *fHistSSDGlobalXLayer5 = new TH1F("fHistSSDGlobalXLayer5",
+ "Global x - Layer 5;x [cm];Entries;",
+ 100,-40.,40.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDGlobalXLayer5,
fGenRecPointsOffset + 8, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDGlobalXLayer6 = new TH1F("SSD/Coordinates/fHistSSDGlobalXLayer6",
- "Global x - Layer 6;x [cm];Entries;",
- 100,-45.,45.);
+ TH1F *fHistSSDGlobalXLayer6 = new TH1F("fHistSSDGlobalXLayer6",
+ "Global x - Layer 6;x [cm];Entries;",
+ 100,-45.,45.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDGlobalXLayer6,
fGenRecPointsOffset + 9, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDGlobalYLayer5 = new TH1F("SSD/Coordinates/fHistSSDGlobalYLayer5",
- "Global y - Layer 5;y [cm];Entries;",
- 100,-40.,40);
+ TH1F *fHistSSDGlobalYLayer5 = new TH1F("fHistSSDGlobalYLayer5",
+ "Global y - Layer 5;y [cm];Entries;",
+ 100,-40.,40);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDGlobalYLayer5,
fGenRecPointsOffset + 10, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDGlobalYLayer6 = new TH1F("SSD/Coordinates/fHistSSDGlobalYLayer6",
- "Global y - Layer 6;y [cm];Entries;",
- 100,-45.,45.);
+ TH1F *fHistSSDGlobalYLayer6 = new TH1F("fHistSSDGlobalYLayer6",
+ "Global y - Layer 6;y [cm];Entries;",
+ 100,-45.,45.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDGlobalYLayer6,
fGenRecPointsOffset + 11, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDGlobalZLayer5 = new TH1F("SSD/Coordinates/fHistSSDGlobalZLayer5",
- "Global z - Layer 5;z [cm];Entries;",
- 100,-45.,45);
+ TH1F *fHistSSDGlobalZLayer5 = new TH1F("fHistSSDGlobalZLayer5",
+ "Global z - Layer 5;z [cm];Entries;",
+ 100,-45.,45);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDGlobalZLayer5,
fGenRecPointsOffset + 12, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDGlobalZLayer6 = new TH1F("SSD/Coordinates/fHistSSDGlobalZLayer6",
- "Global z - Layer 6;z [cm];Entries;",
- 100,-55.,55.);
+ TH1F *fHistSSDGlobalZLayer6 = new TH1F("fHistSSDGlobalZLayer6",
+ "Global z - Layer 6;z [cm];Entries;",
+ 100,-55.,55.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDGlobalZLayer6,
fGenRecPointsOffset + 13, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDPhiLayer5 = new TH1F("SSD/Coordinates/fHistSSDPhiLayer5",
- "#phi - Layer 5;#phi [rad];Entries;",
- 100,-TMath::Pi(),TMath::Pi());
+ TH1F *fHistSSDPhiLayer5 = new TH1F("fHistSSDPhiLayer5",
+ "#phi - Layer 5;#phi [rad];Entries;",
+ 100,-TMath::Pi(),TMath::Pi());
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDPhiLayer5,
fGenRecPointsOffset + 14, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDPhiLayer6 = new TH1F("SSD/Coordinates/fHistSSDPhiLayer6",
- "#phi - Layer 6;#phi [rad];Entries;",
- 100,-TMath::Pi(),TMath::Pi());
+ TH1F *fHistSSDPhiLayer6 = new TH1F("fHistSSDPhiLayer6",
+ "#phi - Layer 6;#phi [rad];Entries;",
+ 100,-TMath::Pi(),TMath::Pi());
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDPhiLayer6,
fGenRecPointsOffset + 15, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDThetaLayer5 = new TH1F("SSD/Coordinates/fHistSSDThetaLayer5",
- "#theta - Layer 5;#theta [rad];Entries;",
- 100,-TMath::Pi(),TMath::Pi());
+ TH1F *fHistSSDThetaLayer5 = new TH1F("fHistSSDThetaLayer5",
+ "#theta - Layer 5;#theta [rad];Entries;",
+ 100,-TMath::Pi(),TMath::Pi());
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDThetaLayer5,
fGenRecPointsOffset + 16, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDThetaLayer6 = new TH1F("SSD/Coordinates/fHistSSDThetaLayer6",
- "#theta - Layer 6;#theta [rad];Entries;",
- 100,-TMath::Pi(),TMath::Pi());
+ TH1F *fHistSSDThetaLayer6 = new TH1F("fHistSSDThetaLayer6",
+ "#theta - Layer 6;#theta [rad];Entries;",
+ 100,-TMath::Pi(),TMath::Pi());
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDThetaLayer6,
fGenRecPointsOffset + 17, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDRadiusLayer5 = new TH1F("SSD/Coordinates/fHistSSDRadiusLayer5",
- "r - Layer 5;r [cm];Entries;",
- 100,35.,50.);
+ TH1F *fHistSSDRadiusLayer5 = new TH1F("fHistSSDRadiusLayer5",
+ "r - Layer 5;r [cm];Entries;",
+ 100,35.,50.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDRadiusLayer5,
fGenRecPointsOffset + 18, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDRadiusLayer6 = new TH1F("SSD/Coordinates/fHistSSDRadiusLayer6",
- "r - Layer 6;r [cm];Entries;",
- 100,35.,50.);
+ TH1F *fHistSSDRadiusLayer6 = new TH1F("fHistSSDRadiusLayer6",
+ "r - Layer 6;r [cm];Entries;",
+ 100,35.,50.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDRadiusLayer6,
fGenRecPointsOffset + 19, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDClusterTypeLayer5 = new TH1F("SSD/ClusterCharge/Layer5/fHistSSDClusterTypeLayer5",
- "CL type - Layer 5;Cluster type;Entries;",
- 150,0,150);
+ TH1F *fHistSSDClusterTypeLayer5 = new TH1F("fHistSSDClusterTypeLayer5",
+ "CL type - Layer 5;Cluster type;Entries;",
+ 150,0,150);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDClusterTypeLayer5,
fGenRecPointsOffset + 20, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDClusterTypeLayer6 = new TH1F("SSD/ClusterCharge/Layer6/fHistSSDClusterTypeLayer6",
- "CL type - Layer 6;Cluster type;Entries;",
- 150,0,150);
+ TH1F *fHistSSDClusterTypeLayer6 = new TH1F("fHistSSDClusterTypeLayer6",
+ "CL type - Layer 6;Cluster type;Entries;",
+ 150,0,150);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDClusterTypeLayer6,
fGenRecPointsOffset + 21, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDChargeRatioLayer5 = new TH1F("SSD/ClusterCharge/Layer5/fHistSSDChargeRatioLayer5",
- "Charge ratio - Layer 5;q_{ratio};Entries;",
- 100,-2.0,2.0);
+ TH1F *fHistSSDChargeRatioLayer5 = new TH1F("fHistSSDChargeRatioLayer5",
+ "Charge ratio - Layer 5;q_{ratio};Entries;",
+ 100,-2.0,2.0);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargeRatioLayer5,
fGenRecPointsOffset + 22, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDChargeRatioLayer6 = new TH1F("SSD/ClusterCharge/Layer6/fHistSSDChargeRatioLayer6",
- "Charge ratio - Layer 6;q_{ratio};Entries;",
- 100,-2.0,2.0);
+ TH1F *fHistSSDChargeRatioLayer6 = new TH1F("fHistSSDChargeRatioLayer6",
+ "Charge ratio - Layer 6;q_{ratio};Entries;",
+ 100,-2.0,2.0);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargeRatioLayer6,
fGenRecPointsOffset + 23, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDChargekeVLayer5 = new TH1F("SSD/ClusterCharge/Layer5/fHistSSDChargekeVLayer5",
- "Charge - Layer 5;q [keV];Entries;",
- 100,0.,300.);
+ TH1F *fHistSSDChargekeVLayer5 = new TH1F("fHistSSDChargekeVLayer5",
+ "Charge - Layer 5;q [keV];Entries;",
+ 100,0.,300.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargekeVLayer5,
fGenRecPointsOffset + 24, !expert, image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDChargekeVLayer6 = new TH1F("SSD/ClusterCharge/Layer6/fHistSSDChargekeVLayer6",
- "Charge - Layer 6;q [keV];Entries;",
- 100,0.,300.);
+ TH1F *fHistSSDChargekeVLayer6 = new TH1F("fHistSSDChargekeVLayer6",
+ "Charge - Layer 6;q [keV];Entries;",
+ 100,0.,300.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargekeVLayer6,
fGenRecPointsOffset + 25, !expert, image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDChargePSideLayer5 = new TH1F("SSD/ClusterCharge/Layer5/fHistSSDChargePSideLayer5",
- "Charge P- Layer 5;q_{P} [keV];Entries;",
- 100,0.,300.);
+ TH1F *fHistSSDChargePSideLayer5 = new TH1F("fHistSSDChargePSideLayer5",
+ "Charge P- Layer 5;q_{P} [keV];Entries;",
+ 100,0.,300.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargePSideLayer5,
fGenRecPointsOffset + 26, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDChargePSideLayer6 = new TH1F("SSD/ClusterCharge/Layer6/fHistSSDChargePSideLayer6",
- "Charge P- Layer 6;q_{P} [keV];Entries;",
- 100,0.,300.);
+ TH1F *fHistSSDChargePSideLayer6 = new TH1F("fHistSSDChargePSideLayer6",
+ "Charge P- Layer 6;q_{P} [keV];Entries;",
+ 100,0.,300.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargePSideLayer6,
fGenRecPointsOffset + 27, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDChargeNSideLayer5 = new TH1F("SSD/ClusterCharge/Layer5/fHistSSDChargeNSideLayer5",
- "Charge N- Layer 5;q_{N} [keV];Entries;",
- 100,0.,300.);
+ TH1F *fHistSSDChargeNSideLayer5 = new TH1F("fHistSSDChargeNSideLayer5",
+ "Charge N- Layer 5;q_{N} [keV];Entries;",
+ 100,0.,300.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargeNSideLayer5,
fGenRecPointsOffset + 28, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDChargeNSideLayer6 = new TH1F("SSD/ClusterCharge/Layer6/fHistSSDChargeNSideLayer6",
- "Charge N- Layer 6;q_{N} [keV];Entries;",
- 100,0.,300.);
+ TH1F *fHistSSDChargeNSideLayer6 = new TH1F("fHistSSDChargeNSideLayer6",
+ "Charge N- Layer 6;q_{N} [keV];Entries;",
+ 100,0.,300.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargeNSideLayer6,
fGenRecPointsOffset + 29, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDChargeRatio2Layer5 = new TH1F("SSD/ClusterCharge/Layer5/fHistSSDChargeRatio2Layer5",
- "Charge Ratio qN/qP - Layer 5;q_{N}/q_{P};Entries;",
- 100,0,2);
+ TH1F *fHistSSDChargeRatio2Layer5 = new TH1F("fHistSSDChargeRatio2Layer5",
+ "Charge Ratio qN/qP - Layer 5;q_{N}/q_{P};Entries;",
+ 100,0,2);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargeRatio2Layer5,
fGenRecPointsOffset + 30, expert, !image);
fSSDhRecPointsTask += 1;
- TH1F *fHistSSDChargeRatio2Layer6 = new TH1F("SSD/ClusterCharge/Layer6/fHistSSDChargeRatio2Layer6",
- "Charge Ratio qN/qP - Layer 6;q_{N}/q_{P};Entries;",
- 100,0,2);
+ TH1F *fHistSSDChargeRatio2Layer6 = new TH1F("fHistSSDChargeRatio2Layer6",
+ "Charge Ratio qN/qP - Layer 6;q_{N}/q_{P};Entries;",
+ 100,0,2);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargeRatio2Layer6,
fGenRecPointsOffset + 31, expert, !image);
fSSDhRecPointsTask += 1;
- TH2F *fHistSSDChargePNSideLayer5 = new TH2F("SSD/ClusterCharge/Layer5/fHistSSDChargePNSideLayer5",
- "Charge correlation - Layer 5;q_{P} [keV];q_{N} [keV]",
- 100,0.,300.,
- 100,0.,300.);
+ TH2F *fHistSSDChargePNSideLayer5 = new TH2F("fHistSSDChargePNSideLayer5",
+ "Charge correlation - Layer 5;q_{P} [keV];q_{N} [keV]",
+ 100,0.,300.,
+ 100,0.,300.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargePNSideLayer5,
fGenRecPointsOffset + 32, expert, !image);
fSSDhRecPointsTask += 1;
- TH2F *fHistSSDChargePNSideLayer6 = new TH2F("SSD/ClusterCharge/Layer6/fHistSSDChargePNSideLayer6",
- "Charge correlation - Layer 6;q_{P} [keV];q_{N} [keV]",
- 100,0.,300.,
- 100,0.,300.);
+ TH2F *fHistSSDChargePNSideLayer6 = new TH2F("fHistSSDChargePNSideLayer6",
+ "Charge correlation - Layer 6;q_{P} [keV];q_{N} [keV]",
+ 100,0.,300.,
+ 100,0.,300.);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargePNSideLayer6,
fGenRecPointsOffset + 33, expert, !image);
fSSDhRecPointsTask += 1;
- TH2F *fHistSSDChargeMapLayer5 = new TH2F("SSD/ClusterCharge/Layer5/fHistSSDChargeMapLayer5",
- "Charge map;N_{modules};N_{Ladders}",
- fgkSSDMODULESPERLADDERLAYER5,
- -0.5,fgkSSDMODULESPERLADDERLAYER5+0.5,
- 3*fgkSSDLADDERSLAYER5,
- -0.5,fgkSSDLADDERSLAYER5+0.5);
+ TH2F *fHistSSDChargeMapLayer5 = new TH2F("fHistSSDChargeMapLayer5",
+ "Charge map;N_{modules};N_{Ladders}",
+ fgkSSDMODULESPERLADDERLAYER5,
+ -0.5,fgkSSDMODULESPERLADDERLAYER5+0.5,
+ 3*fgkSSDLADDERSLAYER5,
+ -0.5,fgkSSDLADDERSLAYER5+0.5);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargeMapLayer5,
fGenRecPointsOffset + 34, expert, !image);
fSSDhRecPointsTask += 1;
- TH2F *fHistSSDChargeMapLayer6 = new TH2F("SSD/ClusterCharge/Layer6/fHistSSDChargeMapLayer6",
- "Charge map;N_{modules};N_{Ladders}",
- fgkSSDMODULESPERLADDERLAYER6,
- -0.5,fgkSSDMODULESPERLADDERLAYER6+0.5,
- 3*fgkSSDLADDERSLAYER6,
- -0.5,fgkSSDLADDERSLAYER6+0.5);
+ TH2F *fHistSSDChargeMapLayer6 = new TH2F("fHistSSDChargeMapLayer6",
+ "Charge map;N_{modules};N_{Ladders}",
+ fgkSSDMODULESPERLADDERLAYER6,
+ -0.5,fgkSSDMODULESPERLADDERLAYER6+0.5,
+ 3*fgkSSDLADDERSLAYER6,
+ -0.5,fgkSSDLADDERSLAYER6+0.5);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDChargeMapLayer6,
fGenRecPointsOffset + 35, expert, !image);
fSSDhRecPointsTask += 1;
- TH2F *fHistSSDClusterMapLayer5 = new TH2F("SSD/Statistics/Layer5/fHistSSDClusterMapLayer5",
- "Layer 5;N_{module};N_{ladder}",
- 22,1,23,
- 34,500,534);
+ TH2F *fHistSSDClusterMapLayer5 = new TH2F("fHistSSDClusterMapLayer5",
+ "Layer 5;N_{module};N_{ladder}",
+ 22,1,23,
+ 34,500,534);
fHistSSDClusterMapLayer5->GetXaxis()->SetTitleColor(1);
fHistSSDClusterMapLayer5->SetStats(kFALSE);
fHistSSDClusterMapLayer5->GetYaxis()->SetTitleOffset(1.8);
fAliITSQADataMakerRec->Add2RecPointsList(fHistSSDClusterMapLayer5,
fGenRecPointsOffset + 36, !expert, image);
fSSDhRecPointsTask += 1;
- TH2F *fHistSSDClusterMapLayer6 = new TH2F("SSD/Statistics/Layer6/fHistSSDClusterMapLayer6",
- "Layer 6;N_{module};N_{ladder}",
- 25,1,26,
- 38,600,638);
+ TH2F *fHistSSDClusterMapLayer6 = new TH2F("fHistSSDClusterMapLayer6",
+ "Layer 6;N_{module};N_{ladder}",
+ 25,1,26,
+ 38,600,638);
fHistSSDClusterMapLayer6->GetXaxis()->SetTitleColor(1);
fHistSSDClusterMapLayer6->SetStats(kFALSE);
fHistSSDClusterMapLayer6->GetYaxis()->SetTitleOffset(1.8);
Double_t chargeNSide = clusterCharge*(1. - chargeRatio);
if(layer == 4) {
//printf("-*-*-*-*-*-***************AliITSQASSDataMakerRec::MakeRecpoints Filling 4 called \n");
+ fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 20)->Fill(recp->GetType());
+
+ if(recp->GetType() != 1) continue;
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 0)->Fill(module);
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 4)->Fill(recp->GetDetLocalX());
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 6)->Fill(recp->GetDetLocalZ());
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 14)->Fill(phi);
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 16)->Fill(theta);
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 18)->Fill(radius);
- fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 20)->Fill(recp->GetType());
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 22)->Fill(recp->GetChargeRatio());
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 24)->Fill(recp->GetQ());
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 26)->Fill(chargePSide);
}//layer 5 histograms
if(layer == 5) {
//printf("-*-*-*-*-*-***************AliITSQASSDataMakerRec::MakeRecpoints Filling 5 called \n");
+ fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 21)->Fill(recp->GetType());
+
+ if(recp->GetType() != 1) continue;
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 1)->Fill(module);
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 5)->Fill(recp->GetDetLocalX());
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 7)->Fill(recp->GetDetLocalZ());
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 15)->Fill(phi);
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 17)->Fill(theta);
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 19)->Fill(radius);
- fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 21)->Fill(recp->GetType());
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 23)->Fill(recp->GetChargeRatio());
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 25)->Fill(recp->GetQ());
fAliITSQADataMakerRec->GetRecPointsData(fGenRecPointsOffset + 27)->Fill(chargePSide);
/**************************************************************************
- * Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. *
- * *
- * Author: The ALICE Off-line Project. *
- * Contributors are mentioned in the code where appropriate. *
- * *
- * Permission to use, copy, modify and distribute this software and its *
- * documentation strictly for non-commercial purposes is hereby granted *
- * without fee, provided that the above copyright notice appears in all *
- * copies and that both the copyright notice and this permission notice *
- * appear in the supporting documentation. The authors make no claims *
- * about the suitability of this software for any purpose. It is *
- * provided "as is" without express or implied warranty. *
- **************************************************************************/
+* Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. *
+* *
+* Author: The ALICE Off-line Project. *
+* Contributors are mentioned in the code where appropriate. *
+* *
+* Permission to use, copy, modify and distribute this software and its *
+* documentation strictly for non-commercial purposes is hereby granted *
+* without fee, provided that the above copyright notice appears in all *
+* copies and that both the copyright notice and this permission notice *
+* appear in the supporting documentation. The authors make no claims *
+* about the suitability of this software for any purpose. It is *
+* provided "as is" without express or implied warranty. *
+**************************************************************************/
/* $Id$ */
#include "AliITSgeom.h"
#include "AliITSsimulationSSD.h"
#include "AliITSTableSSD.h"
+#include <TF1.h>
+
ClassImp(AliITSsimulationSSD)
////////////////////////////////////////////////////////////////////////
fIonE(0.0),
fDifConst(),
fDriftVel(){
- //default Constructor
- //Inputs:
- // none.
- // Outputs:
- // none.
- // Return:
- // A default construction AliITSsimulationSSD class
+ //default Constructor
+ //Inputs:
+ // none.
+ // Outputs:
+ // none.
+ // Return:
+ // A default construction AliITSsimulationSSD class
}
//----------------------------------------------------------------------
AliITSsimulationSSD::AliITSsimulationSSD(AliITSDetTypeSim* dettyp):
fMapA2(0),
fIonE(0.0),
fDifConst(),
-fDriftVel(){
- // Constructor
- // Input:
- // AliITSDetTypeSim Pointer to the SSD dettype to be used
- // Outputs:
- // none.
- // Return
- // A standard constructed AliITSsimulationSSD class
-
- Init();
+fDriftVel(),
+fTimeResponse(0){
+ // Constructor
+ // Input:
+ // AliITSDetTypeSim Pointer to the SSD dettype to be used
+ // Outputs:
+ // none.
+ // Return
+ // A standard constructed AliITSsimulationSSD class
+
+ fTimeResponse = new TF1("ftimeresponse",".5*x*exp(1.-.5*x)");
+ Init();
}
//----------------------------------------------------------------------
void AliITSsimulationSSD::Init(){
- // Inilizer, Inilizes all of the variable as needed in a standard place.
- // Input:
- // AliITSsegmentationSSD *seg Pointer to the SSD segmentation to be used
- // AliITSCalibrationSSD *resp Pointer to the SSD responce class to be used
- // Outputs:
- // none.
- // Return
- // none.
- AliITSsegmentationSSD* seg = (AliITSsegmentationSSD*)GetSegmentationModel(2);
-
- SetDriftVelocity(); // use default values in .h file
- SetIonizeE(); // use default values in .h file
- SetDiffConst(); // use default values in .h file
- fpList = new AliITSpList(2,GetNStrips());
- fMapA2 = new AliITSMapA2(seg);
+ // Inilizer, Inilizes all of the variable as needed in a standard place.
+ // Input:
+ // AliITSsegmentationSSD *seg Pointer to the SSD segmentation to be used
+ // AliITSCalibrationSSD *resp Pointer to the SSD responce class to be used
+ // Outputs:
+ // none.
+ // Return
+ // none.
+ AliITSsegmentationSSD* seg = (AliITSsegmentationSSD*)GetSegmentationModel(2);
+
+ SetDriftVelocity(); // use default values in .h file
+ SetIonizeE(); // use default values in .h file
+ SetDiffConst(); // use default values in .h file
+ fpList = new AliITSpList(2,GetNStrips());
+ fMapA2 = new AliITSMapA2(seg);
}
//______________________________________________________________________
AliITSsimulationSSD& AliITSsimulationSSD::operator=(
- const AliITSsimulationSSD &s){
- // Operator =
-
- if(this==&s) return *this;
-
- // this->fDCS = new AliITSdcsSSD(*(s.fDCS));
- this->fMapA2 = s.fMapA2;
- this->fIonE = s.fIonE;
- this->fDifConst[0] = s.fDifConst[0];
- this->fDifConst[1] = s.fDifConst[1];
- this->fDriftVel[0] = s.fDriftVel[0];
- this->fDriftVel[1] = s.fDriftVel[1];
- return *this;
+ const AliITSsimulationSSD &s){
+ // Operator =
+
+ if(this==&s) return *this;
+
+ // this->fDCS = new AliITSdcsSSD(*(s.fDCS));
+ this->fMapA2 = s.fMapA2;
+ this->fIonE = s.fIonE;
+ this->fDifConst[0] = s.fDifConst[0];
+ this->fDifConst[1] = s.fDifConst[1];
+ this->fDriftVel[0] = s.fDriftVel[0];
+ this->fDriftVel[1] = s.fDriftVel[1];
+ this->fTimeResponse = s.fTimeResponse;
+ return *this;
}
/*
//______________________________________________________________________
AliITSsimulation& AliITSsimulationSSD::operator=(
- const AliITSsimulation &s){
- // Operator =
+ const AliITSsimulation &s){
+ // Operator =
- if(this==&s) return *this;
- Error("AliITSsimulationSSD","Not allowed to make a = with "
+ if(this==&s) return *this;
+ Error("AliITSsimulationSSD","Not allowed to make a = with "
"AliITSsimulationSSD Using default creater instead");
-
- return *this;
+
+ return *this;
}
*/
//______________________________________________________________________
AliITSsimulationSSD::AliITSsimulationSSD(const AliITSsimulationSSD &source):
- AliITSsimulation(source),
+ AliITSsimulation(source),
fMapA2(source.fMapA2),
fIonE(source.fIonE),
fDifConst(),
-fDriftVel(){
- // copy constructor
- fDifConst[0] = source.fDifConst[0];
- fDifConst[1] = source.fDifConst[1];
- fDriftVel[0] = source.fDriftVel[0];
- fDriftVel[1] = source.fDriftVel[1];
+fDriftVel(),
+fTimeResponse(source.fTimeResponse){
+ // copy constructor
+ fDifConst[0] = source.fDifConst[0];
+ fDifConst[1] = source.fDifConst[1];
+ fDriftVel[0] = source.fDriftVel[0];
+ fDriftVel[1] = source.fDriftVel[1];
}
//______________________________________________________________________
AliITSsimulationSSD::~AliITSsimulationSSD() {
- // destructor
- delete fMapA2;
- //delete fDCS;
+ // destructor
+ delete fMapA2;
+ delete fTimeResponse;
+ //delete fDCS;
}
//______________________________________________________________________
void AliITSsimulationSSD::InitSimulationModule(Int_t module,Int_t event){
- // Creates maps to build the list of tracks for each sumable digit
- // Inputs:
- // Int_t module // Module number to be simulated
- // Int_t event // Event number to be simulated
- // Outputs:
- // none.
- // Return
- // none.
-
- SetModuleNumber(module);
- SetEventNumber(event);
- fMapA2->ClearMap();
- fpList->ClearMap();
+ // Creates maps to build the list of tracks for each sumable digit
+ // Inputs:
+ // Int_t module // Module number to be simulated
+ // Int_t event // Event number to be simulated
+ // Outputs:
+ // none.
+ // Return
+ // none.
+
+ SetModuleNumber(module);
+ SetEventNumber(event);
+ fMapA2->ClearMap();
+ fpList->ClearMap();
}
//______________________________________________________________________
void AliITSsimulationSSD::FinishSDigitiseModule(){
- // Does the Sdigits to Digits work
- // Inputs:
- // none.
- // Outputs:
- // none.
- // Return:
- // none.
-
- FillMapFrompList(fpList); // need to check if needed here or not????
- SDigitToDigit(fModule,fpList);
- fpList->ClearMap();
- fMapA2->ClearMap();
+ // Does the Sdigits to Digits work
+ // Inputs:
+ // none.
+ // Outputs:
+ // none.
+ // Return:
+ // none.
+
+ FillMapFrompList(fpList); // need to check if needed here or not????
+ SDigitToDigit(fModule,fpList);
+ fpList->ClearMap();
+ fMapA2->ClearMap();
}
//______________________________________________________________________
void AliITSsimulationSSD::DigitiseModule(AliITSmodule *mod,Int_t,Int_t) {
- // Digitizes hits for one SSD module
- SetModuleNumber(mod->GetIndex());
-
- HitsToAnalogDigits(mod,fpList);
- SDigitToDigit(GetModuleNumber(),fpList);
-
- fpList->ClearMap();
- fMapA2->ClearMap();
+ // Digitizes hits for one SSD module
+ SetModuleNumber(mod->GetIndex());
+
+ HitsToAnalogDigits(mod,fpList);
+ SDigitToDigit(GetModuleNumber(),fpList);
+
+ fpList->ClearMap();
+ fMapA2->ClearMap();
}
//______________________________________________________________________
void AliITSsimulationSSD::SDigitiseModule(AliITSmodule *mod,Int_t,Int_t) {
- // Produces Summable/Analog digits and writes them to the SDigit tree.
+ // Produces Summable/Analog digits and writes them to the SDigit tree.
+
+ HitsToAnalogDigits(mod,fpList);
- HitsToAnalogDigits(mod,fpList);
+ WriteSDigits(fpList);
- WriteSDigits(fpList);
-
- fpList->ClearMap();
- fMapA2->ClearMap();
+ fpList->ClearMap();
+ fMapA2->ClearMap();
}
//______________________________________________________________________
void AliITSsimulationSSD::SDigitToDigit(Int_t module,AliITSpList *pList){
- // Takes the pList and finishes the digitization.
-
- ApplyNoise(pList,module);
- ApplyCoupling(pList,module);
- ApplyDeadChannels(module);
-
- ChargeToSignal(module,pList);
+ // Takes the pList and finishes the digitization.
+
+ ApplyNoise(pList,module);
+ ApplyCoupling(pList,module);
+ ApplyDeadChannels(module);
+
+ ChargeToSignal(module,pList);
}
//______________________________________________________________________
void AliITSsimulationSSD::HitsToAnalogDigits(AliITSmodule *mod,
- AliITSpList *pList){
- // Loops over all hits to produce Analog/floating point digits. This
- // is also the first task in producing standard digits.
- Int_t lasttrack = -2;
- Int_t idtrack = -2;
- Double_t x0=0.0, y0=0.0, z0=0.0;
- Double_t x1=0.0, y1=0.0, z1=0.0;
- Double_t de=0.0;
- Int_t module = mod->GetIndex();
-
- AliITSsegmentationSSD* seg = (AliITSsegmentationSSD*)GetSegmentationModel(2);
-
- TObjArray *hits = mod->GetHits();
- Int_t nhits = hits->GetEntriesFast();
- if (nhits<=0) return;
- AliITSTableSSD * tav = new AliITSTableSSD(GetNStrips());
- module = mod->GetIndex();
- if ( mod->GetLayer() == 6 ) seg->SetLayer(6);
- if ( mod->GetLayer() == 5 ) seg->SetLayer(5);
- for(Int_t i=0; i<nhits; i++) {
- // LineSegmentL returns 0 if the hit is entering
- // If hits is exiting returns positions of entering and exiting hits
- // Returns also energy loss
- if(GetDebug(4)){
- cout << i << " ";
- cout << mod->GetHit(i)->GetXL() << " "<<mod->GetHit(i)->GetYL();
- cout << " " << mod->GetHit(i)->GetZL();
- cout << endl;
- } // end if
- if (mod->LineSegmentL(i, x0, x1, y0, y1, z0, z1, de, idtrack)) {
- HitToDigit(module, x0, y0, z0, x1, y1, z1, de,tav);
- if (lasttrack != idtrack || i==(nhits-1)) {
+ AliITSpList *pList){
+ // Loops over all hits to produce Analog/floating point digits. This
+ // is also the first task in producing standard digits.
+ Int_t lasttrack = -2;
+ Int_t idtrack = -2;
+ Double_t x0=0.0, y0=0.0, z0=0.0;
+ Double_t x1=0.0, y1=0.0, z1=0.0;
+ Double_t de=0.0;
+ Int_t module = mod->GetIndex();
+ Double_t tof = 0.;
+
+
+ AliITSsegmentationSSD* seg = (AliITSsegmentationSSD*)GetSegmentationModel(2);
+
+ TObjArray *hits = mod->GetHits();
+ Int_t nhits = hits->GetEntriesFast();
+ if (nhits<=0) return;
+ AliITSTableSSD * tav = new AliITSTableSSD(GetNStrips());
+ module = mod->GetIndex();
+ if ( mod->GetLayer() == 6 ) seg->SetLayer(6);
+ if ( mod->GetLayer() == 5 ) seg->SetLayer(5);
+ for(Int_t i=0; i<nhits; i++) {
+ // LineSegmentL returns 0 if the hit is entering
+ // If hits is exiting returns positions of entering and exiting hits
+ // Returns also energy loss
+ if(GetDebug(4)){
+ cout << i << " ";
+ cout << mod->GetHit(i)->GetXL() << " "<<mod->GetHit(i)->GetYL();
+ cout << " " << mod->GetHit(i)->GetZL();
+ cout << endl;
+ } // end if
+ if (mod->LineSegmentL(i, x0, x1, y0, y1, z0, z1, de, idtrack)) {
+
+ // Scale down dE/dx according to the hit's TOF wrt to the trigger
+ // Necessary for pileup simulation
+ // EF - 21/04/09
+ tof = mod->GetHit(i)->GetTOF();
+ tof *= 1.E+6; // convert time in microsecond
+ de = de * fTimeResponse->Eval(-1.*tof+2.);
+ //
+
+ HitToDigit(module, x0, y0, z0, x1, y1, z1, de,tav);
+ if (lasttrack != idtrack || i==(nhits-1)) {
GetList(idtrack,i,module,pList,tav);
- } // end if
- lasttrack=idtrack;
- } // end if
- } // end loop over hits
- delete tav; tav=0;
- return;
+ } // end if
+ lasttrack=idtrack;
+ } // end if
+ } // end loop over hits
+ delete tav; tav=0;
+ return;
}
//----------------------------------------------------------------------
void AliITSsimulationSSD::HitToDigit(Int_t module, Double_t x0, Double_t y0,
- Double_t z0, Double_t x1, Double_t y1,
- Double_t z1, Double_t de,
- AliITSTableSSD *tav) {
-
- // hit to digit conversion
-
- AliITSsegmentationSSD* seg = (AliITSsegmentationSSD*)GetSegmentationModel(2);
- // Turns hits in SSD module into one or more digits.
- //Float_t tang[2] = {0.0,0.0};
- //seg->Angles(tang[0], tang[1]);//stereo<<->tan(stereo)~=stereo
- Double_t x, y, z;
- Double_t dex=0.0, dey=0.0, dez=0.0;
- Double_t pairs; // pair generation energy per step.
- Double_t sigma[2] = {0.,0.};// standard deviation of the diffusion gaussian
- Double_t tdrift[2] = {0.,0.}; // time of drift
- Double_t w;
- Double_t inf[2], sup[2], par0[2];
-
- // Steps in the module are determined "manually" (i.e. No Geant)
- // NumOfSteps divide path between entering and exiting hits in steps
- Int_t numOfSteps = NumOfSteps(x1, y1, z1, dex, dey, dez);
- // Enery loss is equally distributed among steps
- de = de/numOfSteps;
- pairs = de/GetIonizeE(); // e-h pairs generated
-
- //-----------------------------------------------------
- // stepping
- //-----------------------------------------------------
- for(Int_t j=0; j<numOfSteps; j++) { // stepping
-
- x = x0 + (j+0.5)*dex;
- y = y0 + (j+0.5)*dey;
- if ( y > (seg->Dy()/2+10)*1.0E-4 ) {
- // check if particle is within the detector
- Warning("HitToDigit",
+ Double_t z0, Double_t x1, Double_t y1,
+ Double_t z1, Double_t de,
+ AliITSTableSSD *tav) {
+
+ // hit to digit conversion
+
+ AliITSsegmentationSSD* seg = (AliITSsegmentationSSD*)GetSegmentationModel(2);
+ // Turns hits in SSD module into one or more digits.
+ //Float_t tang[2] = {0.0,0.0};
+ //seg->Angles(tang[0], tang[1]);//stereo<<->tan(stereo)~=stereo
+ Double_t x, y, z;
+ Double_t dex=0.0, dey=0.0, dez=0.0;
+ Double_t pairs; // pair generation energy per step.
+ Double_t sigma[2] = {0.,0.};// standard deviation of the diffusion gaussian
+ Double_t tdrift[2] = {0.,0.}; // time of drift
+ Double_t w;
+ Double_t inf[2], sup[2], par0[2];
+
+ // Steps in the module are determined "manually" (i.e. No Geant)
+ // NumOfSteps divide path between entering and exiting hits in steps
+ Int_t numOfSteps = NumOfSteps(x1, y1, z1, dex, dey, dez);
+ // Enery loss is equally distributed among steps
+ de = de/numOfSteps;
+ pairs = de/GetIonizeE(); // e-h pairs generated
+
+ //-----------------------------------------------------
+ // stepping
+ //-----------------------------------------------------
+ for(Int_t j=0; j<numOfSteps; j++) { // stepping
+
+ x = x0 + (j+0.5)*dex;
+ y = y0 + (j+0.5)*dey;
+ if ( y > (seg->Dy()/2+10)*1.0E-4 ) {
+ // check if particle is within the detector
+ Warning("HitToDigit",
"hit out of detector y0=%e,y=%e,dey=%e,j =%d module=%d, exceed=%e",
y0,y,dey,j,module, y-(seg->Dy()/2+10)*1.0E-4);
- return;
- } // end if
- z = z0 + (j+0.5)*dez;
+ return;
+ } // end if
+ z = z0 + (j+0.5)*dez;
- if(GetDebug(4)) cout <<"HitToDigit "<<x<<" "<<y<<" "<<z<< " "
+ if(GetDebug(4)) cout <<"HitToDigit "<<x<<" "<<y<<" "<<z<< " "
<<dex<<" "<<dey<<" "<<dez<<endl;
- if(seg->GetLayer()==6) {
- y=-y; // Lay6 module has sensor up-side-down!!!
- }
-
- // w is the coord. perpendicular to the strips
- // Float_t xp=x*1.e+4,zp=z*1.e+4; // microns
- Float_t xp=x,zp=z;
- seg->GetPadTxz(xp,zp);
-
- Int_t k;
- //---------------------------------------------------------
- // Pside
- //------------------------------------------------------------
- k=0;
-
- // calculate drift time
- // y is the minimum path
- tdrift[0] = (y+(seg->Dy()*1.0E-4)/2)/GetDriftVelocity(0);
-
- w = xp; // P side strip number
-
- if((w<(-0.5)) || (w>(GetNStrips()-0.5))) {
- // this check rejects hits in regions not covered by strips
- // 0.5 takes into account boundaries
- if(GetDebug(4)) cout << "Dead SSD region, x,z="<<x<<","<<z<<endl;
- return; // There are dead region on the SSD sensitive volume!!!
- } // end if
-
- // sigma is the standard deviation of the diffusion gaussian
- if(tdrift[k]<0) return;
-
- sigma[k] = TMath::Sqrt(2*GetDiffConst(k)*tdrift[k]);
- sigma[k] /= (GetStripPitch()*1.0E-4); //units of Pitch
-
- if(sigma[k]==0.0) {
- Error("HitToDigit"," sigma[%d]=0",k);
- exit(0);
- } // end if
-
- par0[k] = pairs;
- // we integrate the diffusion gaussian from -3sigma to 3sigma
- inf[k] = w - 3*sigma[k]; // 3 sigma from the gaussian average
- sup[k] = w + 3*sigma[k]; // 3 sigma from the gaussian average
- // IntegrateGaussian does the actual
- // integration of diffusion gaussian
- IntegrateGaussian(k, par0[k], w, sigma[k], inf[k], sup[k],tav);
-
- //------------------------------------------------------
- // end Pside
- //-------------------------------------------------------
-
- //------------------------------------------------------
- // Nside
- //-------------------------------------------------------
- k=1;
- tdrift[1] = ((seg->Dy()*1.0E-4)/2-y)/GetDriftVelocity(1);
-
- //tang[k]=TMath::Tan(tang[k]);
-
- w = zp; // N side strip number
-
- if((w<(-0.5)) || (w>(GetNStrips()-0.5))) {
- // this check rejects hits in regions not covered by strips
- // 0.5 takes into account boundaries
- if(GetDebug(4)) cout << "Dead SSD region, x,z="<<x<<","<<z<<endl;
- return; // There are dead region on the SSD sensitive volume.
- } // end if
-
- // sigma is the standard deviation of the diffusion gaussian
- if(tdrift[k]<0) return;
-
- sigma[k] = TMath::Sqrt(2*GetDiffConst(k)*tdrift[k]);
- sigma[k] /= (GetStripPitch()*1.0E-4); //units of Pitch
-
- if(sigma[k]==0.0) {
- Error("HitToDigit"," sigma[%d]=0",k);
- exit(0);
- } // end if
-
- par0[k] = pairs;
- // we integrate the diffusion gaussian from -3sigma to 3sigma
- inf[k] = w - 3*sigma[k]; // 3 sigma from the gaussian average
- sup[k] = w + 3*sigma[k]; // 3 sigma from the gaussian average
- // IntegrateGaussian does the actual
- // integration of diffusion gaussian
- IntegrateGaussian(k, par0[k], w, sigma[k], inf[k], sup[k],tav);
-
- //-------------------------------------------------
- // end Nside
- //-------------------------------------------------
-
-
- } // end stepping
+ if(seg->GetLayer()==6) {
+ y=-y; // Lay6 module has sensor up-side-down!!!
+ }
+
+ // w is the coord. perpendicular to the strips
+ // Float_t xp=x*1.e+4,zp=z*1.e+4; // microns
+ Float_t xp=x,zp=z;
+ seg->GetPadTxz(xp,zp);
+
+ Int_t k;
+ //---------------------------------------------------------
+ // Pside
+ //------------------------------------------------------------
+ k=0;
+
+ // calculate drift time
+ // y is the minimum path
+ tdrift[0] = (y+(seg->Dy()*1.0E-4)/2)/GetDriftVelocity(0);
+
+ w = xp; // P side strip number
+
+ if((w<(-0.5)) || (w>(GetNStrips()-0.5))) {
+ // this check rejects hits in regions not covered by strips
+ // 0.5 takes into account boundaries
+ if(GetDebug(4)) cout << "Dead SSD region, x,z="<<x<<","<<z<<endl;
+ return; // There are dead region on the SSD sensitive volume!!!
+ } // end if
+
+ // sigma is the standard deviation of the diffusion gaussian
+ if(tdrift[k]<0) return;
+
+ sigma[k] = TMath::Sqrt(2*GetDiffConst(k)*tdrift[k]);
+ sigma[k] /= (GetStripPitch()*1.0E-4); //units of Pitch
+
+ if(sigma[k]==0.0) {
+ Error("HitToDigit"," sigma[%d]=0",k);
+ exit(0);
+ } // end if
+
+ par0[k] = pairs;
+ // we integrate the diffusion gaussian from -3sigma to 3sigma
+ inf[k] = w - 3*sigma[k]; // 3 sigma from the gaussian average
+ sup[k] = w + 3*sigma[k]; // 3 sigma from the gaussian average
+ // IntegrateGaussian does the actual
+ // integration of diffusion gaussian
+ IntegrateGaussian(k, par0[k], w, sigma[k], inf[k], sup[k],tav);
+
+ //------------------------------------------------------
+ // end Pside
+ //-------------------------------------------------------
+
+ //------------------------------------------------------
+ // Nside
+ //-------------------------------------------------------
+ k=1;
+ tdrift[1] = ((seg->Dy()*1.0E-4)/2-y)/GetDriftVelocity(1);
+
+ //tang[k]=TMath::Tan(tang[k]);
+
+ w = zp; // N side strip number
+
+ if((w<(-0.5)) || (w>(GetNStrips()-0.5))) {
+ // this check rejects hits in regions not covered by strips
+ // 0.5 takes into account boundaries
+ if(GetDebug(4)) cout << "Dead SSD region, x,z="<<x<<","<<z<<endl;
+ return; // There are dead region on the SSD sensitive volume.
+ } // end if
+
+ // sigma is the standard deviation of the diffusion gaussian
+ if(tdrift[k]<0) return;
+
+ sigma[k] = TMath::Sqrt(2*GetDiffConst(k)*tdrift[k]);
+ sigma[k] /= (GetStripPitch()*1.0E-4); //units of Pitch
+
+ if(sigma[k]==0.0) {
+ Error("HitToDigit"," sigma[%d]=0",k);
+ exit(0);
+ } // end if
+
+ par0[k] = pairs;
+ // we integrate the diffusion gaussian from -3sigma to 3sigma
+ inf[k] = w - 3*sigma[k]; // 3 sigma from the gaussian average
+ sup[k] = w + 3*sigma[k]; // 3 sigma from the gaussian average
+ // IntegrateGaussian does the actual
+ // integration of diffusion gaussian
+ IntegrateGaussian(k, par0[k], w, sigma[k], inf[k], sup[k],tav);
+
+ //-------------------------------------------------
+ // end Nside
+ //-------------------------------------------------
+
+
+ } // end stepping
}
//______________________________________________________________________
void AliITSsimulationSSD::ApplyNoise(AliITSpList *pList,Int_t module){
- // Apply Noise.
- Int_t ix;
- Double_t signal,noise;
- AliITSCalibrationSSD* res =(AliITSCalibrationSSD*)GetCalibrationModel(module);
-
- // Pside
- for(ix=0;ix<GetNStrips();ix++){ // loop over strips
-
- // noise is gaussian
- noise = (Double_t) gRandom->Gaus(0,res->GetNoiseP(ix));
-
- // need to calibrate noise
- // NOTE. noise from the calibration database comes uncalibrated,
- // it needs to be calibrated in order to be added
- // to the signal. It will be decalibrated later on together with the noise
- noise *= (Double_t) res->GetGainP(ix);
-
- // noise comes in ADC channels from the calibration database
- // It needs to be converted back to electronVolts
- noise /= res->GetSSDDEvToADC(1.);
-
- // Finally, noise is added to the signal
- signal = noise + fMapA2->GetSignal(0,ix);//get signal from map
- fMapA2->SetHit(0,ix,signal); // give back signal to map
- if(signal>0.0) pList->AddNoise(0,ix,module,noise);
- } // loop over strip
-
- // Nside
- for(ix=0;ix<GetNStrips();ix++){ // loop over strips
- noise = (Double_t) gRandom->Gaus(0,res->GetNoiseN(ix));// give noise to signal
- noise *= (Double_t) res->GetGainN(ix);
- noise /= res->GetSSDDEvToADC(1.);
- signal = noise + fMapA2->GetSignal(1,ix);//get signal from map
- fMapA2->SetHit(1,ix,signal); // give back signal to map
- if(signal>0.0) pList->AddNoise(1,ix,module,noise);
- } // loop over strip
-
+ // Apply Noise.
+ Int_t ix;
+ Double_t signal,noise;
+ AliITSCalibrationSSD* res =(AliITSCalibrationSSD*)GetCalibrationModel(module);
+
+ // Pside
+ for(ix=0;ix<GetNStrips();ix++){ // loop over strips
+
+ // noise is gaussian
+ noise = (Double_t) gRandom->Gaus(0,res->GetNoiseP(ix));
+
+ // need to calibrate noise
+ // NOTE. noise from the calibration database comes uncalibrated,
+ // it needs to be calibrated in order to be added
+ // to the signal. It will be decalibrated later on together with the noise
+ noise *= (Double_t) res->GetGainP(ix);
+
+ // noise comes in ADC channels from the calibration database
+ // It needs to be converted back to electronVolts
+ noise /= res->GetSSDDEvToADC(1.);
+
+ // Finally, noise is added to the signal
+ signal = noise + fMapA2->GetSignal(0,ix);//get signal from map
+ fMapA2->SetHit(0,ix,signal); // give back signal to map
+ if(signal>0.0) pList->AddNoise(0,ix,module,noise);
+ } // loop over strip
+
+ // Nside
+ for(ix=0;ix<GetNStrips();ix++){ // loop over strips
+ noise = (Double_t) gRandom->Gaus(0,res->GetNoiseN(ix));// give noise to signal
+ noise *= (Double_t) res->GetGainN(ix);
+ noise /= res->GetSSDDEvToADC(1.);
+ signal = noise + fMapA2->GetSignal(1,ix);//get signal from map
+ fMapA2->SetHit(1,ix,signal); // give back signal to map
+ if(signal>0.0) pList->AddNoise(1,ix,module,noise);
+ } // loop over strip
+
}
//______________________________________________________________________
void AliITSsimulationSSD::ApplyCoupling(AliITSpList *pList,Int_t module) {
- // Apply the effect of electronic coupling between channels
- Int_t ix;
- Double_t signal=0;
- //AliITSCalibrationSSD* res =(AliITSCalibrationSSD*)GetCalibrationModel(module);
- AliITSSimuParam* res = fDetType->GetSimuParam();
-
- Double_t *contrLeft = new Double_t[GetNStrips()];
- Double_t *contrRight = new Double_t[GetNStrips()];
-
- // P side coupling
- for(ix=0;ix<GetNStrips();ix++){
- if(ix>0) contrLeft[ix] = fMapA2->GetSignal(0,ix-1)*res->GetSSDCouplingPL();
- else contrLeft[ix] = 0.0;
- if(ix<(GetNStrips()-1)) contrRight[ix] = fMapA2->GetSignal(0,ix+1)*res->GetSSDCouplingPR();
- else contrRight[ix] = 0.0;
- } // loop over strips
-
- for(ix=0;ix<GetNStrips();ix++){
- signal = contrLeft[ix] + contrRight[ix] - res->GetSSDCouplingPL() * fMapA2->GetSignal(0,ix)
- - res->GetSSDCouplingPR() * fMapA2->GetSignal(0,ix);
- fMapA2->AddSignal(0,ix,signal);
- if(signal>0.0) pList->AddNoise(0,ix,module,signal);
- } // loop over strips
-
- // N side coupling
- for(ix=0;ix<GetNStrips();ix++){
- if(ix>0) contrLeft[ix] = fMapA2->GetSignal(1,ix-1)*res->GetSSDCouplingNL();
- else contrLeft[ix] = 0.0;
- if(ix<(GetNStrips()-1)) contrRight[ix] = fMapA2->GetSignal(1,ix+1)*res->GetSSDCouplingNR();
- else contrRight[ix] = 0.0;
- } // loop over strips
-
- for(ix=0;ix<GetNStrips();ix++){
- signal = contrLeft[ix] + contrRight[ix] - res->GetSSDCouplingNL() * fMapA2->GetSignal(0,ix)
- - res->GetSSDCouplingNR() * fMapA2->GetSignal(0,ix);
- fMapA2->AddSignal(1,ix,signal);
- if(signal>0.0) pList->AddNoise(1,ix,module,signal);
- } // loop over strips
-
-
- delete [] contrLeft;
- delete [] contrRight;
+ // Apply the effect of electronic coupling between channels
+ Int_t ix;
+ Double_t signal=0;
+ //AliITSCalibrationSSD* res =(AliITSCalibrationSSD*)GetCalibrationModel(module);
+ AliITSSimuParam* res = fDetType->GetSimuParam();
+
+ Double_t *contrLeft = new Double_t[GetNStrips()];
+ Double_t *contrRight = new Double_t[GetNStrips()];
+
+ // P side coupling
+ for(ix=0;ix<GetNStrips();ix++){
+ if(ix>0) contrLeft[ix] = fMapA2->GetSignal(0,ix-1)*res->GetSSDCouplingPL();
+ else contrLeft[ix] = 0.0;
+ if(ix<(GetNStrips()-1)) contrRight[ix] = fMapA2->GetSignal(0,ix+1)*res->GetSSDCouplingPR();
+ else contrRight[ix] = 0.0;
+ } // loop over strips
+
+ for(ix=0;ix<GetNStrips();ix++){
+ signal = contrLeft[ix] + contrRight[ix] - res->GetSSDCouplingPL() * fMapA2->GetSignal(0,ix)
+ - res->GetSSDCouplingPR() * fMapA2->GetSignal(0,ix);
+ fMapA2->AddSignal(0,ix,signal);
+ if(signal>0.0) pList->AddNoise(0,ix,module,signal);
+ } // loop over strips
+
+ // N side coupling
+ for(ix=0;ix<GetNStrips();ix++){
+ if(ix>0) contrLeft[ix] = fMapA2->GetSignal(1,ix-1)*res->GetSSDCouplingNL();
+ else contrLeft[ix] = 0.0;
+ if(ix<(GetNStrips()-1)) contrRight[ix] = fMapA2->GetSignal(1,ix+1)*res->GetSSDCouplingNR();
+ else contrRight[ix] = 0.0;
+ } // loop over strips
+
+ for(ix=0;ix<GetNStrips();ix++){
+ signal = contrLeft[ix] + contrRight[ix] - res->GetSSDCouplingNL() * fMapA2->GetSignal(0,ix)
+ - res->GetSSDCouplingNR() * fMapA2->GetSignal(0,ix);
+ fMapA2->AddSignal(1,ix,signal);
+ if(signal>0.0) pList->AddNoise(1,ix,module,signal);
+ } // loop over strips
+
+
+ delete [] contrLeft;
+ delete [] contrRight;
}
//______________________________________________________________________
void AliITSsimulationSSD::ApplyDeadChannels(Int_t module) {
- // Kill dead channels setting gain to zero
+ // Kill dead channels setting gain to zero
- AliITSCalibrationSSD* res = (AliITSCalibrationSSD*)GetCalibrationModel(module);
+ AliITSCalibrationSSD* res = (AliITSCalibrationSSD*)GetCalibrationModel(module);
- for(Int_t i=0;i<GetNStrips();i++){
+ for(Int_t i=0;i<GetNStrips();i++){
- if(res->IsPChannelBad(i)) res->SetGainP(i,0.0);
- if(res->IsNChannelBad(i)) res->SetGainN(i,0.0);
+ if(res->IsPChannelBad(i)) res->SetGainP(i,0.0);
+ if(res->IsNChannelBad(i)) res->SetGainN(i,0.0);
- } // loop over strips
+ } // loop over strips
}
//______________________________________________________________________
Float_t AliITSsimulationSSD::F(Float_t av, Float_t x, Float_t s) {
- // Computes the integral of a gaussian using Error Function
- Float_t sqrt2 = TMath::Sqrt(2.0);
- Float_t sigm2 = sqrt2*s;
- Float_t integral;
+ // Computes the integral of a gaussian using Error Function
+ Float_t sqrt2 = TMath::Sqrt(2.0);
+ Float_t sigm2 = sqrt2*s;
+ Float_t integral;
- integral = 0.5 * TMath::Erf( (x - av) / sigm2);
- return integral;
+ integral = 0.5 * TMath::Erf( (x - av) / sigm2);
+ return integral;
}
//______________________________________________________________________
void AliITSsimulationSSD::IntegrateGaussian(Int_t k,Double_t par, Double_t w,
- Double_t sigma,
- Double_t inf, Double_t sup,
- AliITSTableSSD *tav) {
- // integrate the diffusion gaussian
- // remind: inf and sup are w-3sigma and w+3sigma
- // we could define them here instead of passing them
- // this way we are free to introduce asimmetry
-
- Double_t a=0.0, b=0.0;
- Double_t dXCharge1 = 0.0, dXCharge2 = 0.0;
- // dXCharge1 and 2 are the charge to two neighbouring strips
- // Watch that we only involve at least two strips
- // Numbers greater than 2 of strips in a cluster depend on
- // geometry of the track and delta rays, not charge diffusion!
-
- Double_t strip = TMath::Floor(w); // closest strip on the left
-
- if ( TMath::Abs((strip - w)) < 0.5) {
- // gaussian mean is closer to strip on the left
- a = inf; // integration starting point
- if((strip+0.5)<=sup) {
- // this means that the tail of the gaussian goes beyond
- // the middle point between strips ---> part of the signal
- // is given to the strip on the right
- b = strip + 0.5; // integration stopping point
- dXCharge1 = F( w, b, sigma) - F(w, a, sigma);
- dXCharge2 = F( w, sup, sigma) - F(w ,b, sigma);
- }else {
- // this means that all the charge is given to the strip on the left
- b = sup;
- dXCharge1 = 0.9973; // gaussian integral at 3 sigmas
- dXCharge2 = 0.0;
- } // end if
- dXCharge1 = par * dXCharge1;// normalize by mean of number of carriers
- dXCharge2 = par * dXCharge2;
-
- // for the time being, signal is the charge
- // in ChargeToSignal signal is converted in ADC channel
- fMapA2->AddSignal(k,(Int_t)strip,dXCharge1);
- tav->Add(k,(Int_t)strip);
- if(((Int_t) strip) < (GetNStrips()-1)) {
- // strip doesn't have to be the last (remind: last=GetNStrips()-1)
- // otherwise part of the charge is lost
- fMapA2->AddSignal(k,((Int_t)strip+1),dXCharge2);
- tav->Add(k,((Int_t)(strip+1)));
- } // end if
- }else{
- // gaussian mean is closer to strip on the right
- strip++; // move to strip on the rigth
- b = sup; // now you know where to stop integrating
- if((strip-0.5)>=inf) {
- // tail of diffusion gaussian on the left goes left of
- // middle point between strips
- a = strip - 0.5; // integration starting point
- dXCharge1 = F(w, b, sigma) - F(w, a, sigma);
- dXCharge2 = F(w, a, sigma) - F(w, inf, sigma);
- }else {
- a = inf;
- dXCharge1 = 0.9973; // gaussian integral at 3 sigmas
- dXCharge2 = 0.0;
- } // end if
- dXCharge1 = par * dXCharge1; // normalize by means of carriers
- dXCharge2 = par * dXCharge2;
- // for the time being, signal is the charge
- // in ChargeToSignal signal is converted in ADC channel
- fMapA2->AddSignal(k,(Int_t)strip,dXCharge1);
- tav->Add(k,(Int_t)strip);
- if(((Int_t) strip) > 0) {
- // strip doesn't have to be the first
- // otherwise part of the charge is lost
- fMapA2->AddSignal(k,((Int_t)strip-1),dXCharge2);
- tav->Add(k,((Int_t)(strip-1)));
- } // end if
- } // end if
+ Double_t sigma,
+ Double_t inf, Double_t sup,
+ AliITSTableSSD *tav) {
+ // integrate the diffusion gaussian
+ // remind: inf and sup are w-3sigma and w+3sigma
+ // we could define them here instead of passing them
+ // this way we are free to introduce asimmetry
+
+ Double_t a=0.0, b=0.0;
+ Double_t dXCharge1 = 0.0, dXCharge2 = 0.0;
+ // dXCharge1 and 2 are the charge to two neighbouring strips
+ // Watch that we only involve at least two strips
+ // Numbers greater than 2 of strips in a cluster depend on
+ // geometry of the track and delta rays, not charge diffusion!
+
+ Double_t strip = TMath::Floor(w); // closest strip on the left
+
+ if ( TMath::Abs((strip - w)) < 0.5) {
+ // gaussian mean is closer to strip on the left
+ a = inf; // integration starting point
+ if((strip+0.5)<=sup) {
+ // this means that the tail of the gaussian goes beyond
+ // the middle point between strips ---> part of the signal
+ // is given to the strip on the right
+ b = strip + 0.5; // integration stopping point
+ dXCharge1 = F( w, b, sigma) - F(w, a, sigma);
+ dXCharge2 = F( w, sup, sigma) - F(w ,b, sigma);
+ }else {
+ // this means that all the charge is given to the strip on the left
+ b = sup;
+ dXCharge1 = 0.9973; // gaussian integral at 3 sigmas
+ dXCharge2 = 0.0;
+ } // end if
+ dXCharge1 = par * dXCharge1;// normalize by mean of number of carriers
+ dXCharge2 = par * dXCharge2;
+
+ // for the time being, signal is the charge
+ // in ChargeToSignal signal is converted in ADC channel
+ fMapA2->AddSignal(k,(Int_t)strip,dXCharge1);
+ tav->Add(k,(Int_t)strip);
+ if(((Int_t) strip) < (GetNStrips()-1)) {
+ // strip doesn't have to be the last (remind: last=GetNStrips()-1)
+ // otherwise part of the charge is lost
+ fMapA2->AddSignal(k,((Int_t)strip+1),dXCharge2);
+ tav->Add(k,((Int_t)(strip+1)));
+ } // end if
+ }else{
+ // gaussian mean is closer to strip on the right
+ strip++; // move to strip on the rigth
+ b = sup; // now you know where to stop integrating
+ if((strip-0.5)>=inf) {
+ // tail of diffusion gaussian on the left goes left of
+ // middle point between strips
+ a = strip - 0.5; // integration starting point
+ dXCharge1 = F(w, b, sigma) - F(w, a, sigma);
+ dXCharge2 = F(w, a, sigma) - F(w, inf, sigma);
+ }else {
+ a = inf;
+ dXCharge1 = 0.9973; // gaussian integral at 3 sigmas
+ dXCharge2 = 0.0;
+ } // end if
+ dXCharge1 = par * dXCharge1; // normalize by means of carriers
+ dXCharge2 = par * dXCharge2;
+ // for the time being, signal is the charge
+ // in ChargeToSignal signal is converted in ADC channel
+ fMapA2->AddSignal(k,(Int_t)strip,dXCharge1);
+ tav->Add(k,(Int_t)strip);
+ if(((Int_t) strip) > 0) {
+ // strip doesn't have to be the first
+ // otherwise part of the charge is lost
+ fMapA2->AddSignal(k,((Int_t)strip-1),dXCharge2);
+ tav->Add(k,((Int_t)(strip-1)));
+ } // end if
+ } // end if
}
//______________________________________________________________________
Int_t AliITSsimulationSSD::NumOfSteps(Double_t x, Double_t y, Double_t z,
- Double_t &dex,Double_t &dey,
- Double_t &dez){
- // number of steps
- // it also returns steps for each coord
- //AliITSsegmentationSSD *seg = new AliITSsegmentationSSD();
-
- Double_t step = 25E-4;
- //step = (Double_t) seg->GetStepSize(); // step size (cm)
- Int_t numOfSteps = (Int_t) (TMath::Sqrt(x*x+y*y+z*z)/step);
-
- if (numOfSteps < 1) numOfSteps = 1; // one step, at least
- //numOfSteps=1;
-
- // we could condition the stepping depending on the incident angle
- // of the track
- dex = x/numOfSteps;
- dey = y/numOfSteps;
- dez = z/numOfSteps;
-
- return numOfSteps;
+ Double_t &dex,Double_t &dey,
+ Double_t &dez){
+ // number of steps
+ // it also returns steps for each coord
+ //AliITSsegmentationSSD *seg = new AliITSsegmentationSSD();
+
+ Double_t step = 25E-4;
+ //step = (Double_t) seg->GetStepSize(); // step size (cm)
+ Int_t numOfSteps = (Int_t) (TMath::Sqrt(x*x+y*y+z*z)/step);
+
+ if (numOfSteps < 1) numOfSteps = 1; // one step, at least
+ //numOfSteps=1;
+
+ // we could condition the stepping depending on the incident angle
+ // of the track
+ dex = x/numOfSteps;
+ dey = y/numOfSteps;
+ dez = z/numOfSteps;
+
+ return numOfSteps;
}
//----------------------------------------------------------------------
void AliITSsimulationSSD::GetList(Int_t label,Int_t hit,Int_t mod,
- AliITSpList *pList,AliITSTableSSD *tav) {
- // loop over nonzero digits
- Int_t ix,i;
- Double_t signal=0.;
-
- for(Int_t k=0; k<2; k++) {
- ix=tav->Use(k);
- while(ix>-1){
- signal = fMapA2->GetSignal(k,ix);
- if(signal==0.0) {
- ix=tav->Use(k);
- continue;
- } // end if signal==0.0
- // check the signal magnitude
-
for(i=0;i<pList->GetNSignals(k,ix);i++){
- signal -= pList->GetTSignal(k,ix,i);
- } // end for i
- // compare the new signal with already existing list
- if(signal>0)pList->AddSignal(k,ix,label,hit,mod,signal);
- ix=tav->Use(k);
- } // end of loop on strips
- } // end of loop on P/N side
- tav->Clear();
+ AliITSpList *pList,AliITSTableSSD *tav) {
+ // loop over nonzero digits
+ Int_t ix,i;
+ Double_t signal=0.;
+
+ for(Int_t k=0; k<2; k++) {
+ ix=tav->Use(k);
+ while(ix>-1){
+ signal = fMapA2->GetSignal(k,ix);
+ if(signal==0.0) {
+ ix=tav->Use(k);
+ continue;
+ } // end if signal==0.0
+ // check the signal magnitude
+ for(i=0;i<pList->GetNSignals(k,ix);i++){
+ signal -= pList->GetTSignal(k,ix,i);
+ } // end for i
+ // compare the new signal with already existing list
+ if(signal>0)pList->AddSignal(k,ix,label,hit,mod,signal);
+ ix=tav->Use(k);
+ } // end of loop on strips
+ } // end of loop on P/N side
+ tav->Clear();
}
//----------------------------------------------------------------------
void AliITSsimulationSSD::ChargeToSignal(Int_t module,AliITSpList *pList) {
- // charge to signal
- static AliITS *aliITS = (AliITS*)gAlice->GetModule("ITS");
- Float_t threshold = 0.;
- Int_t size = AliITSdigitSSD::GetNTracks();
- Int_t * digits = new Int_t[size];
- Int_t * tracks = new Int_t[size];
- Int_t * hits = new Int_t[size];
- Int_t j1;
- Float_t charges[3] = {0.0,0.0,0.0};
- Float_t signal;
- AliITSCalibrationSSD* res =(AliITSCalibrationSSD*)GetCalibrationModel(module);
- AliITSSimuParam* simpar = fDetType->GetSimuParam();
-
- for(Int_t k=0;k<2;k++){ // both sides (0=Pside, 1=Nside)
- for(Int_t ix=0;ix<GetNStrips();ix++){ // loop over strips
+ // charge to signal
+ static AliITS *aliITS = (AliITS*)gAlice->GetModule("ITS");
+ Float_t threshold = 0.;
+ Int_t size = AliITSdigitSSD::GetNTracks();
+ Int_t * digits = new Int_t[size];
+ Int_t * tracks = new Int_t[size];
+ Int_t * hits = new Int_t[size];
+ Int_t j1;
+ Float_t charges[3] = {0.0,0.0,0.0};
+ Float_t signal;
+ AliITSCalibrationSSD* res =(AliITSCalibrationSSD*)GetCalibrationModel(module);
+ AliITSSimuParam* simpar = fDetType->GetSimuParam();
+
+ for(Int_t k=0;k<2;k++){ // both sides (0=Pside, 1=Nside)
+ for(Int_t ix=0;ix<GetNStrips();ix++){ // loop over strips
// if strip is dead -> gain=0
if( ((k==0)&&(res->GetGainP(ix)==0)) || ((k==1)&&(res->GetGainN(ix)==0))) continue;
} // end for j1
// finally add digit
aliITS->AddSimDigit(2,0,digits,tracks,hits,charges);
- } // end for ix
- } // end for k
- delete [] digits;
- delete [] tracks;
- delete [] hits;
+ } // end for ix
+ } // end for k
+ delete [] digits;
+ delete [] tracks;
+ delete [] hits;
}
//______________________________________________________________________
void AliITSsimulationSSD::WriteSDigits(AliITSpList *pList){
- // Fills the Summable digits Tree
- Int_t i,ni,j,nj;
- static AliITS *aliITS = (AliITS*)gAlice->GetModule("ITS");
-
- pList->GetMaxMapIndex(ni,nj);
- for(i=0;i<ni;i++)for(j=0;j<nj;j++){
- if(pList->GetSignalOnly(i,j)>0.0){
- aliITS->AddSumDigit(*(pList->GetpListItem(i,j)));
- if(GetDebug(4)) cout << "pListSSD: "<<*(pList->GetpListItem(i,j))
- << endl;
- } // end if
- } // end for i,j
- return;
+ // Fills the Summable digits Tree
+ Int_t i,ni,j,nj;
+ static AliITS *aliITS = (AliITS*)gAlice->GetModule("ITS");
+
+ pList->GetMaxMapIndex(ni,nj);
+ for(i=0;i<ni;i++)for(j=0;j<nj;j++){
+ if(pList->GetSignalOnly(i,j)>0.0){
+ aliITS->AddSumDigit(*(pList->GetpListItem(i,j)));
+ if(GetDebug(4)) cout << "pListSSD: "<<*(pList->GetpListItem(i,j))
+ << endl;
+ } // end if
+ } // end for i,j
+ return;
}
//______________________________________________________________________
void AliITSsimulationSSD::FillMapFrompList(AliITSpList *pList){
- // Fills fMap2A from the pList of Summable digits
- Int_t k,ix;
+ // Fills fMap2A from the pList of Summable digits
+ Int_t k,ix;
- for(k=0;k<2;k++)for(ix=0;ix<GetNStrips();ix++)
- fMapA2->AddSignal(k,ix,pList->GetSignal(k,ix));
- return;
+ for(k=0;k<2;k++)for(ix=0;ix<GetNStrips();ix++)
+ fMapA2->AddSignal(k,ix,pList->GetSignal(k,ix));
+ return;
}
//______________________________________________________________________
void AliITSsimulationSSD::Print(ostream *os){
- //Standard output format for this class
-
- //AliITSsimulation::Print(os);
- *os << fIonE <<",";
- *os << fDifConst[0] <<","<< fDifConst[1] <<",";
- *os << fDriftVel[0] <<","<< fDriftVel[1];
- //*os <<","; fDCS->Print(os);
- //*os <<","; fMapA2->Print(os);
+ //Standard output format for this class
+
+ //AliITSsimulation::Print(os);
+ *os << fIonE <<",";
+ *os << fDifConst[0] <<","<< fDifConst[1] <<",";
+ *os << fDriftVel[0] <<","<< fDriftVel[1];
+ //*os <<","; fDCS->Print(os);
+ //*os <<","; fMapA2->Print(os);
}
//______________________________________________________________________
void AliITSsimulationSSD::Read(istream *is){
- // Standard output streaming function.
-
- //AliITSsimulation::Read(is);
- *is >> fIonE;
- *is >> fDifConst[0] >> fDifConst[1];
- *is >> fDriftVel[0] >> fDriftVel[1];
- //fDCS->Read(is);
- //fMapA2->Read(is);
+ // Standard output streaming function.
+
+ //AliITSsimulation::Read(is);
+ *is >> fIonE;
+ *is >> fDifConst[0] >> fDifConst[1];
+ *is >> fDriftVel[0] >> fDriftVel[1];
+ //fDCS->Read(is);
+ //fMapA2->Read(is);
}
//______________________________________________________________________
ostream &operator<<(ostream &os,AliITSsimulationSSD &source){
- // Standard output streaming function.
+ // Standard output streaming function.
- source.Print(&os);
- return os;
+ source.Print(&os);
+ return os;
}
//______________________________________________________________________
istream &operator>>(istream &os,AliITSsimulationSSD &source){
- // Standard output streaming function.
+ // Standard output streaming function.
- source.Read(&os);
- return os;
+ source.Read(&os);
+ return os;
}
//______________________________________________________________________
-
-
-
-
#ifndef ALIITSSIMULATIONSSD_H
#define ALIITSSIMULATIONSSD_H
/* Copyright(c) 1998-1999, ALICE Experiment at CERN, All rights reserved. *
- * See cxx source for full Copyright notice */
+* See cxx source for full Copyright notice */
/* $Id$ */
//class AliITSdcsSSD;
class AliITSsegmentationSSD;
class AliITSCalibrationSSD;
+class TF1;
class AliITSsimulationSSD: public AliITSsimulation {
- public:
- AliITSsimulationSSD(); // Default constructor
- AliITSsimulationSSD(const AliITSsimulationSSD &source); // copy constructor
- // operator =
- AliITSsimulationSSD& operator=(const AliITSsimulationSSD &source);
- // virtual AliITSsimulation& operator=(const AliITSsimulation &source);
- //Standard Constructor
- AliITSsimulationSSD(AliITSDetTypeSim* dettyp);
- //Destructor
- virtual ~AliITSsimulationSSD();
- // Get a pointer to the segmentation object
- virtual AliITSsegmentation* GetSegmentationModel(Int_t /*dt*/){return fDetType->GetSegmentationModel(2);}
- // set pointer to segmentation objec
- virtual void SetSegmentationModel(Int_t /*dt*/, AliITSsegmentation *seg){fDetType->SetSegmentationModel(2,seg);}
- // Initilize variables for this simulation
- void Init();
- // Initilize variables for this simulation
- //void Init(AliITSsegmentationSSD *seg,AliITSCalibrationSSD *resp);
- // Create maps to build the lists of tracks for each summable digit
- void InitSimulationModule(Int_t module,Int_t events);
- // Digitize module from the sum of summable digits.
- void FinishSDigitiseModule();
- //Digitizes all of the hits in a module
- void DigitiseModule(AliITSmodule *mod,Int_t dummy0,Int_t dummy1);
- // Computes the Summable Digits
- void SDigitiseModule(AliITSmodule *mod,Int_t module,Int_t dummy);
- // Computes the Charge on each Strip/ Analog/summable digits
- void HitsToAnalogDigits(AliITSmodule *mod,AliITSpList *pList);
- //Computes the signal from one hit
- void HitToDigit(Int_t module,Double_t x0,Double_t y0,Double_t z0,
+public:
+ AliITSsimulationSSD(); // Default constructor
+ AliITSsimulationSSD(const AliITSsimulationSSD &source); // copy constructor
+ // operator =
+ AliITSsimulationSSD& operator=(const AliITSsimulationSSD &source);
+ // virtual AliITSsimulation& operator=(const AliITSsimulation &source);
+ //Standard Constructor
+ AliITSsimulationSSD(AliITSDetTypeSim* dettyp);
+ //Destructor
+ virtual ~AliITSsimulationSSD();
+ // Get a pointer to the segmentation object
+ virtual AliITSsegmentation* GetSegmentationModel(Int_t /*dt*/){return fDetType->GetSegmentationModel(2);}
+ // set pointer to segmentation objec
+ virtual void SetSegmentationModel(Int_t /*dt*/, AliITSsegmentation *seg){fDetType->SetSegmentationModel(2,seg);}
+ // Initilize variables for this simulation
+ void Init();
+ // Initilize variables for this simulation
+ //void Init(AliITSsegmentationSSD *seg,AliITSCalibrationSSD *resp);
+ // Create maps to build the lists of tracks for each summable digit
+ void InitSimulationModule(Int_t module,Int_t events);
+ // Digitize module from the sum of summable digits.
+ void FinishSDigitiseModule();
+ //Digitizes all of the hits in a module
+ void DigitiseModule(AliITSmodule *mod,Int_t dummy0,Int_t dummy1);
+ // Computes the Summable Digits
+ void SDigitiseModule(AliITSmodule *mod,Int_t module,Int_t dummy);
+ // Computes the Charge on each Strip/ Analog/summable digits
+ void HitsToAnalogDigits(AliITSmodule *mod,AliITSpList *pList);
+ //Computes the signal from one hit
+ void HitToDigit(Int_t module,Double_t x0,Double_t y0,Double_t z0,
Double_t x,Double_t y,Double_t z,Double_t de,
AliITSTableSSD *tav);
- //returns a pointer to the SSD segmentation.
- /*AliITSsegmentationSSD *GetSegmentation() {
+ //returns a pointer to the SSD segmentation.
+ /*AliITSsegmentationSSD *GetSegmentation() {
return (AliITSsegmentationSSD*) fSegmentation;}
- */
- //Returns the ionization energy for Si in GeV.
- Double_t GetIonizeE() const {return fIonE;}
- //Sets the ionization energy for Si in GeV.
- void SetIonizeE(Double_t e=3.62E-09){fIonE = e;}
- //Returns the Diffusion constant h in cm**2/sec
- Double_t GetDiffConst(Int_t i) const {return fDifConst[i];}
- //Sets the Diffusion constant h in cm**2/sec
- void SetDiffConst(Double_t h=11.0,Double_t e=30.0)
+ */
+ //Returns the ionization energy for Si in GeV.
+ Double_t GetIonizeE() const {return fIonE;}
+ //Sets the ionization energy for Si in GeV.
+ void SetIonizeE(Double_t e=3.62E-09){fIonE = e;}
+ //Returns the Diffusion constant h in cm**2/sec
+ Double_t GetDiffConst(Int_t i) const {return fDifConst[i];}
+ //Sets the Diffusion constant h in cm**2/sec
+ void SetDiffConst(Double_t h=11.0,Double_t e=30.0)
{fDifConst[0] = h;fDifConst[1]=e;}
- //Returns the Drift velocity for the side i
- Double_t GetDriftVelocity(Int_t i) const {return fDriftVel[i];}
- //Sets the Drift velocity for the P and N sides
- void SetDriftVelocity(Double_t v0=0.86E+06,Double_t v1=2.28E+06)
+ //Returns the Drift velocity for the side i
+ Double_t GetDriftVelocity(Int_t i) const {return fDriftVel[i];}
+ //Sets the Drift velocity for the P and N sides
+ void SetDriftVelocity(Double_t v0=0.86E+06,Double_t v1=2.28E+06)
{fDriftVel[0] = v0;fDriftVel[1] = v1;}
- // Standard ascii class print function
- void Print(ostream *os);
- // Standard ascii class read function
- void Read(istream *is);
- virtual void Print(Option_t *option="") const {TObject::Print(option);}
- virtual Int_t Read(const char *name) {return TObject::Read(name);}
- // Data members
- protected:
+ // Standard ascii class print function
+ void Print(ostream *os);
+ // Standard ascii class read function
+ void Read(istream *is);
+ virtual void Print(Option_t *option="") const {TObject::Print(option);}
+ virtual Int_t Read(const char *name) {return TObject::Read(name);}
+ // Data members
+protected:
- // AliITSdcsSSD *fDCS; // Class containing detector controle paramters
+ // AliITSdcsSSD *fDCS; // Class containing detector controle paramters
- private:
- // Return the Response class
- // AliITSCalibrationSSD* GetResp(){return (AliITSCalibrationSSD*)fResponse;}
- // Return the Segmentation class
- //AliITSsegmentationSSD* GetSeg(){
- // return (AliITSsegmentationSSD*)fSegmentation;}
- // returns the number of steps needed to proplerly distribute the charge
- // in a step
- Int_t NumOfSteps(Double_t x,Double_t y,Double_t z,
+private:
+ // Return the Response class
+ // AliITSCalibrationSSD* GetResp(){return (AliITSCalibrationSSD*)fResponse;}
+ // Return the Segmentation class
+ //AliITSsegmentationSSD* GetSeg(){
+ // return (AliITSsegmentationSSD*)fSegmentation;}
+ // returns the number of steps needed to proplerly distribute the charge
+ // in a step
+ Int_t NumOfSteps(Double_t x,Double_t y,Double_t z,
Double_t &dex,Double_t &dey,Double_t &dez);
- // Keepts track and orders tracks for a give strip.
- void GetList(Int_t trk,Int_t ht,Int_t mod,AliITSpList *pLt,
+ // Keepts track and orders tracks for a give strip.
+ void GetList(Int_t trk,Int_t ht,Int_t mod,AliITSpList *pLt,
AliITSTableSSD *tav);
- // sets thresholds and fills digits
- void ChargeToSignal(Int_t module,AliITSpList *pList);
- // Writes Summable Digits to a root file for later use.
- void WriteSDigits(AliITSpList *pList);
- // ReadSDigits and create Digits
- void SDigitToDigit(Int_t module,AliITSpList *pList);
- // Fills fMapA2 from pList AliITSpList
- void FillMapFrompList(AliITSpList *pList);
- // Diffuses the charge onto neighboring strips.
- void IntegrateGaussian(Int_t k,Double_t par,Double_t av,Double_t sigma,
+ // sets thresholds and fills digits
+ void ChargeToSignal(Int_t module,AliITSpList *pList);
+ // Writes Summable Digits to a root file for later use.
+ void WriteSDigits(AliITSpList *pList);
+ // ReadSDigits and create Digits
+ void SDigitToDigit(Int_t module,AliITSpList *pList);
+ // Fills fMapA2 from pList AliITSpList
+ void FillMapFrompList(AliITSpList *pList);
+ // Diffuses the charge onto neighboring strips.
+ void IntegrateGaussian(Int_t k,Double_t par,Double_t av,Double_t sigma,
Double_t inf, Double_t sup,
AliITSTableSSD *tav);
- // Applies noise to strips randomly
- void ApplyNoise(AliITSpList *pList,Int_t mod);
- // Applies posible signal coupling between strips
- void ApplyCoupling(AliITSpList *pList,Int_t mod);
- // Kill dead channels
- void ApplyDeadChannels(Int_t mod);
- // Computes the integral of a gaussian using Error Function
- Float_t F(Float_t av, Float_t x, Float_t s);
- // returns, from the segmentation, the number of stips
- Int_t GetNStrips() {AliITSsegmentationSSD* seg = (AliITSsegmentationSSD*)GetSegmentationModel(2);return seg->Npx();}
- // returns, from the segmentation, the strip pitch
- Float_t GetStripPitch() {AliITSsegmentationSSD* seg = (AliITSsegmentationSSD*)GetSegmentationModel(2);return seg->Dpx(0);}
+ // Applies noise to strips randomly
+ void ApplyNoise(AliITSpList *pList,Int_t mod);
+ // Applies posible signal coupling between strips
+ void ApplyCoupling(AliITSpList *pList,Int_t mod);
+ // Kill dead channels
+ void ApplyDeadChannels(Int_t mod);
+ // Computes the integral of a gaussian using Error Function
+ Float_t F(Float_t av, Float_t x, Float_t s);
+ // returns, from the segmentation, the number of stips
+ Int_t GetNStrips() {AliITSsegmentationSSD* seg = (AliITSsegmentationSSD*)GetSegmentationModel(2);return seg->Npx();}
+ // returns, from the segmentation, the strip pitch
+ Float_t GetStripPitch() {AliITSsegmentationSSD* seg = (AliITSsegmentationSSD*)GetSegmentationModel(2);return seg->Dpx(0);}
- AliITSMapA2 *fMapA2; //! Map of ionization, used localy only
- Double_t fIonE; // ionization energy of Si in GeV
- Double_t fDifConst[2]; // Diffusion constants [h,e] in cm**2/sec
- Double_t fDriftVel[2]; // Drift velocities [P,N sides] cm/sec
+ AliITSMapA2 *fMapA2; //! Map of ionization, used localy only
+ Double_t fIonE; // ionization energy of Si in GeV
+ Double_t fDifConst[2]; // Diffusion constants [h,e] in cm**2/sec
+ Double_t fDriftVel[2]; // Drift velocities [P,N sides] cm/sec
- ClassDef(AliITSsimulationSSD,2) // SSD signal simulation class
+ TF1 *fTimeResponse; // signal time response function
+
+ ClassDef(AliITSsimulationSSD,2) // SSD signal simulation class
};
// Input and output functions for standard C++ input/output.
--- /dev/null
+// Analysis task for Long Range Correlation (LRC) analysis using TPC data
+// This task is creatig TH2D histogramms for Nch - Nch , Nch - Pt , Pt - Pt
+// dirtributions for given ETA windows and some supplementary data.
+
+// Author : Andrey Ivanov , St.Peterburg State University
+// Email: Andrey.Ivanov@cern.ch
+
+// Version line : 3.0
+// Version: 3.0.8 may 08
+
+
+#include "TChain.h"
+#include "TTree.h"
+#include "TH1F.h"
+#include "TCanvas.h"
+#include "TH2D.h"
+#include "TProfile.h"
+#include "TList.h"
+
+#include "AliAnalysisTask.h"
+#include "AliAnalysisManager.h"
+
+#include "AliESDEvent.h"
+#include "AliESDInputHandler.h"
+
+#include "AliAnalysisTaskLRC.h"
+
+
+
+ClassImp(AliAnalysisTaskLRC)
+
+//________________________________________________________________________
+AliAnalysisTaskLRC::AliAnalysisTaskLRC(const char *name)
+ : AliAnalysisTask(name, ""), fESD(0), fHistPt(0),fHistEta(0),fOutList(0),fHistNN(0),fHistPtN(0),fHistPtPt(0),fHistNberr(0),fProfdPtB(0),fProfTestLRC(0),fHistPtForward(0),fHistEtaForward(0),fHistNchForward(0),fHistPtBakward(0),fHistEtaBakward(0),fHistNchBakward(0)
+{
+ //Init
+
+ // Constructor
+
+ SetETAWindows(-1.0,1.0,-1.0,1.0); //Default windows (full range)
+
+ // Define input and output slots here
+ // Input slot #0 works with a TChain
+ DefineInput(0, TChain::Class());
+ // Output slot #0 writes into a TList container for all histogramms
+ DefineOutput(0, TList::Class());
+
+}
+
+
+// --------------------------------------- Setters ------------------
+
+ void AliAnalysisTaskLRC::SetForwardWindow(double StartETA,double EndETA)
+ {
+ fStartForwardETA=StartETA;
+ fEndForwardETA=EndETA;
+ }
+ void AliAnalysisTaskLRC::SetBackwardWindow(double StartETA,double EndETA)
+ {
+ fStartBakwardETA=StartETA;
+ fEndBakwardETA=EndETA;
+ }
+ void AliAnalysisTaskLRC::SetETAWindows(double _StartForwardETA,double _EndForwardETA,double _StartBakwardETA,double _EndBakwardETA)
+ {
+ fStartForwardETA=_StartForwardETA;
+ fEndForwardETA=_EndForwardETA;
+ fStartBakwardETA=_StartBakwardETA;
+ fEndBakwardETA=_EndBakwardETA;
+ }
+
+
+
+
+//________________________________________________________________________
+void AliAnalysisTaskLRC::ConnectInputData(Option_t *)
+{
+ // Connect ESD or AOD here
+ // Called once
+
+ TTree* tree = dynamic_cast<TTree*> (GetInputData(0));
+ if (!tree) {
+ Printf("ERROR: Could not read chain from input slot 0");
+ } else {
+
+ AliESDInputHandler *esdH = dynamic_cast<AliESDInputHandler*> (AliAnalysisManager::GetAnalysisManager()->GetInputEventHandler());
+
+ if (!esdH) {
+ Printf("ERROR: Could not get ESDInputHandler");
+ } else
+ fESD = esdH->GetEvent();
+ }
+}
+
+//________________________________________________________________________
+void AliAnalysisTaskLRC::CreateOutputObjects()
+{
+ // Create histograms
+
+
+ // Window statistics histograms
+
+ // Forward
+
+ fHistPtForward = new TH1D("fHistPtForward", "P_{T} distribution in Forward window", 150, 0.1, 3.1);
+ fHistPtForward->GetXaxis()->SetTitle("P_{T} (GeV/c)");
+ fHistPtForward->GetYaxis()->SetTitle("dN/dP_{T} (c/GeV)");
+ fHistPtForward->SetMarkerStyle(kFullCircle);
+
+
+ fHistEtaForward = new TH1D("fEtaForward", "#eta distribution in Forward window", 200, -2, 2);
+ fHistEtaForward->GetXaxis()->SetTitle("ETA");
+ fHistEtaForward->GetYaxis()->SetTitle("dN/ETA");
+ fHistEtaForward->SetMarkerStyle(kFullCircle);
+
+
+ fHistNchForward = new TH1D("fHistNchForward", "N_{ch} distribution in Forward window", 201, -0.5, 200.5);
+ fHistNchForward->GetXaxis()->SetTitle("N_{ch}");
+ fHistNchForward->GetYaxis()->SetTitle("dN/dN_{ch}");
+ fHistNchForward->SetMarkerStyle(kFullCircle);
+
+ // Bakward
+
+ fHistPtBakward = new TH1D("fHistPtBakward", "P_{T} distribution in Bakward window", 150, 0.1, 3.1);
+ fHistPtBakward->GetXaxis()->SetTitle("P_{T} (GeV/c)");
+ fHistPtBakward->GetYaxis()->SetTitle("dN/dP_{T} (c/GeV)");
+ fHistPtBakward->SetMarkerStyle(kFullCircle);
+
+
+ fHistEtaBakward = new TH1D("fEtaBakward", "#eta distribution in Bakward window", 200, -2, 2);
+ fHistEtaBakward->GetXaxis()->SetTitle("ETA");
+ fHistEtaBakward->GetYaxis()->SetTitle("dN/ETA");
+ fHistEtaBakward->SetMarkerStyle(kFullCircle);
+
+
+ fHistNchBakward = new TH1D("fHistNchBakward", "N_{ch} distribution in Bakward window", 201, -0.5, 200.5);
+ fHistNchBakward->GetXaxis()->SetTitle("P_{T} (GeV/c)");
+ fHistNchBakward->GetYaxis()->SetTitle("dN/dP_{T} (c/GeV)");
+ fHistNchBakward->SetMarkerStyle(kFullCircle);
+
+
+ // --------- Output list
+
+ fOutList = new TList();
+
+
+ //Overal statistics histograms
+
+ fHistPt = new TH1F("fHistPt", "P_{T} distribution", 150, 0.1, 3.1);
+ fHistPt->GetXaxis()->SetTitle("P_{T} (GeV/c)");
+ fHistPt->GetYaxis()->SetTitle("dN/dP_{T} (c/GeV)");
+ fHistPt->SetMarkerStyle(kFullCircle);
+
+
+ fHistEta = new TH1F("fEta", "#eta distribution", 200, -2, 2);
+ fHistEta->GetXaxis()->SetTitle("ETA");
+ fHistEta->GetYaxis()->SetTitle("dN/ETA");
+ fHistEta->SetMarkerStyle(kFullCircle);
+
+
+
+ // -------- LRC histograms
+
+ fHistNN = new TH2D("NN","NN",100,0.5,100.5,100,0.5,100.5);//1000 ������ � ���� �� ��������
+ fHistPtN = new TH2D("PtN","PtN",100,0.5,100.5,40,0,4);//4 gev - ����������� �������
+ fHistPtPt = new TH2D("PtPt","PtPt",40,0,4,40,0,4);//4 gev - ����������� �������
+ fHistNberr = new TH2D("nber","nber",100,0.5,100.5,1000,0,1);//��� ������� ������ ��� x ��������� � Nf
+ fProfdPtB = new TProfile("dPtB","Overal multievent Pt_Backward (first bin) Pt_Backward^2 (sec. bin) ",2,0.5,2.5);
+ fProfTestLRC = new TProfile("TestLRC","Test LRC calculaion via TProfile",100,0.5,100.5);
+
+
+ // ---------- Adding data members to output list
+
+ // Adding overal statistics
+
+ fOutList->Add(fHistPt);
+ fOutList->Add(fHistEta);
+
+ //Adding LRC hists
+
+ fOutList->Add(fHistNN);
+ fOutList->Add(fHistPtN);
+ fOutList->Add(fHistPtPt);
+ fOutList->Add(fHistNberr);
+ fOutList->Add(fProfdPtB);
+ fOutList->Add(fProfTestLRC);
+
+
+ //Adding window statistics
+
+ fOutList->Add(fHistPtForward);
+ fOutList->Add(fHistEtaForward);
+ fOutList->Add(fHistNchForward);
+ fOutList->Add(fHistPtBakward);
+ fOutList->Add(fHistEtaBakward);
+ fOutList->Add(fHistNchBakward);
+
+
+
+}
+
+//________________________________________________________________________
+void AliAnalysisTaskLRC::Exec(Option_t *)
+{
+ // Main loop
+ // Called for each event
+
+ if (!fESD) {
+ Printf("ERROR: fESD not available");
+ return;
+ }
+
+
+
+ //Event variables
+ double lPtF=0; //Forward window Pt
+ double lPtB=0; //Bakward window Pt
+
+ int lNF=0; // Forward multiplicity
+ int lNB=0; // Bakward multiplicity
+
+
+ //Track variables
+ double lPt; // Temp Pt
+ double lEta; // Temp ETA
+
+ // Track loop
+ for (Int_t iTracks = 0; iTracks < fESD->GetNumberOfTracks(); iTracks++) {
+ AliESDtrack* track = fESD->GetTrack(iTracks);
+ if (!track) {
+ Printf("ERROR: Could not receive track %d", iTracks);
+ continue;
+ }
+
+
+ lPt=track->Pt();
+ lEta=track->Eta();
+
+ // Glabal trak data
+ fHistPt->Fill(lPt);
+ fHistEta->Fill(lEta);
+
+ //Forward window
+ if( (fStartForwardETA<lEta)&&(lEta<fEndForwardETA))
+ {
+ lNF++;
+ lPtF+=lPt;
+ fHistPtForward->Fill(lPt);
+ fHistEtaForward->Fill(lEta);
+
+ }
+
+ //Backward window
+ if((fStartBakwardETA<lEta)&&(lEta<fEndBakwardETA))
+ {
+ lNB++;
+ lPtB+=lPt;
+ if(lPt<4.0)
+ {
+ fProfdPtB->Fill(1,lPt);
+ fProfdPtB->Fill(2,lPt*lPt);
+ }
+
+ fHistPtBakward->Fill(lPt);
+ fHistEtaBakward->Fill(lEta);
+
+ }
+
+
+
+
+ } //end of track loop
+
+
+ //Filling even-total data
+ fHistNN->Fill(lNF,lNB);
+
+ if(lNB!=0)
+ {
+ lPtB=lPtB/lNB;
+ fProfTestLRC->Fill(lNF,lPtB);
+ fHistPtN->Fill(lNF,lPtB);
+ fHistNberr->Fill(lNF,1.0/lNB);
+
+ if(lNF!=0)
+ {
+ lPtF=lPtF/lNF;
+ fHistPtPt->Fill(lPtF,lPtB);
+ }
+ }
+
+
+ fHistNchForward->Fill(lNF);
+ fHistNchBakward->Fill(lNB);
+ // Post output data.
+
+ PostData(0, fOutList);
+}
+
+//________________________________________________________________________
+void AliAnalysisTaskLRC::Terminate(Option_t *)
+{
+ // Draw result to the screen
+ // Called once at the end of the query
+fOutList = dynamic_cast<TList*> (GetOutputData(0));
+
+
+
+
+}
--- /dev/null
+#ifndef AliAnalysisTaskLRC_cxx\r
+#define AliAnalysisTaskLRC_cxx\r
+\r
+\r
+// Analysis task for Long Range Correlation (LRC) analysis using TPC data\r
+// This task is creatig TH2D histogramms for Nch - Nch , Nch - Pt , Pt - Pt \r
+// dirtributions for given ETA windows and some supplementary data. \r
+\r
+// Author : Andrey Ivanov , St.Peterburg State University\r
+// Email: Andrey.Ivanov@cern.ch\r
+\r
+// Version line : 3.0\r
+// Version: 3.0.8 may 08\r
+\r
+\r
+class TH1F;\r
+class AliESDEvent;\r
+class TH2D;\r
+class TProfile;\r
+class TList;\r
+#include "AliAnalysisTask.h"\r
+\r
+class AliAnalysisTaskLRC : public AliAnalysisTask {\r
+\r
+public:\r
+ \r
+ \r
+ //Constructors\r
+ \r
+ AliAnalysisTaskLRC(const char *name = "AliAnalysisTaskLRC");\r
+ virtual ~AliAnalysisTaskLRC() {}\r
+ \r
+ //AliAnalysisTask overloading\r
+ virtual void ConnectInputData(Option_t *);\r
+ virtual void CreateOutputObjects();\r
+ virtual void Exec(Option_t *option);\r
+ virtual void Terminate(Option_t *);\r
+ \r
+ // Setters \r
+ void SetForwardWindow(double StartETA,double EndETA);\r
+ void SetBackwardWindow(double StartETA,double EndETA);\r
+ void SetETAWindows(double _StartForwardETA,double _EndForwardETA,double _StartBakwardETA,double _EndBakwardETA);\r
+ \r
+ \r
+ \r
+ \r
+private:\r
+ \r
+ AliESDEvent *fESD; //ESD object\r
+ \r
+ // Total spectras (debugging)\r
+ TH1F *fHistPt; //Overal Pt spectrum\r
+ TH1F *fHistEta; //Overal Eta spectrum\r
+ \r
+ // Windows paramiters -----------------------------------\r
+ \r
+ double fStartForwardETA; // Forward windos lover rapidity\r
+ double fEndForwardETA; // Forward window higer rapidity \r
+ double fStartBakwardETA; // Bakward window lover rapidity\r
+ double fEndBakwardETA; // Bakward window higer rapidity\r
+\r
+ \r
+ \r
+ //Otput List --------------------------------------------\r
+ \r
+ TList* fOutList; // Output data container \r
+ \r
+ // Output histogramms -----------------------------------\r
+\r
+ TH2D* fHistNN; // N-N 2D Profile\r
+ TH2D* fHistPtN; // Pt-N 2D Profile\r
+ TH2D* fHistPtPt; // Pt-Pt 2D Profile\r
+ TH2D* fHistNberr; // Nbackward error Profile\r
+ TProfile* fProfdPtB; // Used to store (in first bin) summary of PtB and its std diviation\r
+ TProfile* fProfTestLRC; // Diognostic LRC Pt - N correlation\r
+\r
+ // Supp. info for windows\r
+ //Forward\r
+ TH1D* fHistPtForward; //Pt spectrum in Forward windows\r
+ TH1D* fHistEtaForward; //Eta spectrum in Forward windows\r
+ TH1D* fHistNchForward; //Nch spectrum in Forward windows\r
+ \r
+ //Bakward\r
+ TH1D* fHistPtBakward; //Pt spectrum in Bakward windows\r
+ TH1D* fHistEtaBakward; //Eta spectrum in Bakward windows\r
+ TH1D* fHistNchBakward; //Nch spectrum in Bakward windows\r
+ \r
+ \r
+ \r
+ AliAnalysisTaskLRC(const AliAnalysisTaskLRC&); // not implemented\r
+ AliAnalysisTaskLRC& operator=(const AliAnalysisTaskLRC&); // not implemented\r
+ \r
+ ClassDef(AliAnalysisTaskLRC, 1); \r
+};\r
+\r
+#endif\r
--- /dev/null
+void runLRCAnalysis(const char* mode = "Local",
+ const char* inputName= "ESDs.lst") {
+// This macro runs AliAnalysisTaskLRC in three modes : "Local" , "Interactive", "PROOF", "GRID"
+// ESD-only
+// inputName refers to :
+// "Local" - file with plane-text list of filenames
+// "Intaractive","GRID" - XML collection name
+// "PROOF" - dataset name
+//
+//
+
+if(mode!="Local" && mode!="Interactive" && mode!="PROOF" && mode!="GRID")
+{
+cout<<" ! Mode must be : Local , Interactive, PROOF, GRID \n";
+cout<<" ! Unknown mode :"<<mode<< " \n";
+return;
+}
+
+if(mode=="Local")runLRCLocal(inputName);
+if(mode=="PROOF")runLRCProof(inputName);
+if(mode=="Interactive")runLRCInteractive(inputName);
+if(mode=="GRID")runLRCInteractive(inputName);
+
+
+}
+
+void runLRCLocal(const char* inputName= "ESDs.lst") {
+ printf(" ------------------------------------------\n");
+ printf(" # LRC local run manager \n");
+ cout<<" # Task from :"<<gSystem->pwd()<<"\n";
+ cout<<" # Input list :"<<inputName<<"\n";
+ cout<<" # Loadnig libs...\n";
+
+ TStopwatch timer;
+ timer.Start();
+ gSystem->Load("libTree.so");
+ gSystem->Load("libGeom.so");
+ gSystem->Load("libVMC.so");
+ gSystem->Load("libPhysics.so");
+ gSystem->Load("libSTEERBase.so");
+ gSystem->Load("libESD.so");
+ gSystem->Load("libAOD.so");
+ gSystem->Load("libANALYSIS.so");
+ gSystem->Load("libANALYSISalice.so");
+ gSystem->Load("libPWG2ebye.so");
+
+
+ //___________Compile analysis task using AClic____________//
+
+ gROOT->ProcessLine(".include $ALICE_ROOT/include");
+ cout<<" # Compiling analysis task\n";
+ gROOT->LoadMacro("AliAnalysisTaskLRC.cxx+g");
+ gROOT->LoadMacro("$ALICE_ROOT/PWG0/CreateESDChain.C");
+
+ TChain* chain = CreateESDChain(inputName);
+
+ //____________________________________________//
+ // Make the analysis manager
+ AliAnalysisManager *mgr = new AliAnalysisManager("TestManager");
+ AliESDInputHandler* esdH = new AliESDInputHandler();
+ mgr->SetInputEventHandler(esdH);
+
+
+ AliAnalysisTaskLRC *task1 = new AliAnalysisTaskLRC("TaskLRC");
+ mgr->AddTask(task1);
+
+ task1->SetETAWindows(-0.7,0.0,0.3,1.0);
+
+ // Create containers for input/output
+ AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("cchain1",TChain::Class(),AliAnalysisManager::kInputContainer);
+ AliAnalysisDataContainer *coutput1 = mgr->CreateContainer("chist1", TList::Class(),AliAnalysisManager::kOutputContainer,"LRC.ESD.testLocal.root");
+
+ //____________________________________________//
+ mgr->ConnectInput(task1,0,cinput1);
+ mgr->ConnectOutput(task1,0,coutput1);
+ if (!mgr->InitAnalysis()) return;
+ mgr->PrintStatus();
+ mgr->StartAnalysis("local",chain);
+
+ timer.Stop();
+ timer.Print();
+}
+
+void runLRCProof(const char* inputName= "/COMMON/COMMON/tutorial_small")
+{
+ printf(" ------------------------------------------\n");
+ printf(" # LRC PROOF run manager \n");
+ cout<<" # Task from :"<<gSystem->pwd()<<"\n";
+ cout<<" # Dataset :"<<inputName<<"\n";
+
+
+ TProof::Open("alicecaf");
+ //TProof::Open("anivanov@localhost");
+
+
+ cout<<" # Loadnig libs...\n";
+
+ gProof->UploadPackage("AF-v4-16");
+ gProof->EnablePackage("AF-v4-16");
+
+
+
+ // Use AliRoot includes to compile our task
+ gROOT->ProcessLine(".include $ALICE_ROOT/include");
+
+ cout<<" # Compiling analysis task\n";
+
+
+ gProof->Load("AliAnalysisTaskLRC.cxx++g");
+ task = new AliAnalysisTaskLRC("TestLRC");
+
+ task->SetETAWindows(-0.7,0.0,0.3,1.0);
+
+ // Create the analysis manager
+ mgr = new AliAnalysisManager("testAnalysis");
+
+
+ mgr->AddTask(task);
+
+ AliESDInputHandler* esdH = new AliESDInputHandler();
+ mgr->SetInputEventHandler(esdH);
+
+
+ // Create containers for input/output
+ cinput = mgr->CreateContainer("cchain", TChain::Class(), AliAnalysisManager::kInputContainer);
+ coutput = mgr->CreateContainer("chist", TList::Class(), AliAnalysisManager::kOutputContainer, "LRC.ESD.PROOFtest.root");
+
+ // Connect input/output
+ mgr->ConnectInput(task, 0, cinput);
+ mgr->ConnectOutput(task, 0, coutput);
+
+
+ mgr->InitAnalysis();
+ mgr->PrintStatus();
+
+ mgr->StartAnalysis("proof", inputName);
+
+
+
+};
+
+void runLRCInteractive(const char* inputName= "wn.xml") {
+
+ printf(" ------------------------------------------\n");
+ printf(" # LRC local-interactive run manager \n");
+ cout<<" # Task from :"<<gSystem->pwd()<<"\n";
+ cout<<" # Collection :"<<inputName<<"\n";
+
+ cout<<"*** Connect to AliEn ***\n";
+ TGrid::Connect("alien://","anivanov");
+
+ cout<<" # Loadnig libs...\n";
+
+ TStopwatch timer;
+ timer.Start();
+ gSystem->Load("libTree.so");
+ gSystem->Load("libGeom.so");
+ gSystem->Load("libVMC.so");
+ gSystem->Load("libPhysics.so");
+ gSystem->Load("libSTEERBase.so");
+ gSystem->Load("libESD.so");
+ gSystem->Load("libAOD.so");
+ gSystem->Load("libANALYSIS.so");
+ gSystem->Load("libANALYSISalice.so");
+
+ gSystem->Load("libPWG2ebye.so");
+
+ gROOT->ProcessLine(".include $ALICE_ROOT/include");
+
+
+ //___________Compile analysis task using AClic____________//
+ cout<<" # Compiling analysis task\n";
+ gROOT->LoadMacro("AliAnalysisTaskLRC.cxx+g");
+
+
+
+ TAlienCollection * myCollection =
+ new TAlienCollection("wn.xml",100000) ;
+ if (!myCollection) {
+ cout << "XML collection file: " << xmlFileName << " not found" << endl;
+ return;
+ }
+
+ TChain* chain = new TChain("esdTree");
+
+ cout << "Preparing the file list" << endl;
+ myCollection->Reset() ;
+ while ( myCollection->Next() ) {
+ cout << "Adding ESD file: " << myCollection->GetTURL("") << endl;
+ chain->Add(myCollection->GetTURL("")) ;
+ }
+
+
+
+ AliAnalysisManager *mgr = new AliAnalysisManager("Local-Interactive_LRC_Manager");
+ AliESDInputHandler* esdH = new AliESDInputHandler();
+
+ mgr->SetInputEventHandler(esdH);
+ //____________________________________________//
+
+ AliAnalysisTaskLRC *task1 = new AliAnalysisTaskLRC("TaskLRC");
+ mgr->AddTask(task1);
+
+ task1->SetETAWindows(-0.7,0.0,0.3,1.0);
+
+ // Create containers for input/output
+ AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("cchain1",TChain::Class(),AliAnalysisManager::kInputContainer);
+ AliAnalysisDataContainer *coutput1 = mgr->CreateContainer("chist1", TList::Class(),AliAnalysisManager::kOutputContainer,"LRC.ESD.Local-Interactive.root");
+
+ //____________________________________________//
+ mgr->ConnectInput(task1,0,cinput1);
+ mgr->ConnectOutput(task1,0,coutput1);
+ if (!mgr->InitAnalysis()) return;
+ mgr->PrintStatus();
+ mgr->StartAnalysis("local",chain);
+
+ timer.Stop();
+ timer.Print();
+}
fMaxDCA3DFlag(kFALSE), fMaxDCA3DTPCFlag(kFALSE),
fMaxConstrainChi2Flag(kFALSE),
fITSRefitFlag(kFALSE), fTPCRefitFlag(kFALSE),
- fESDpidFlag(kFALSE), fTPCpidFlag(kFALSE),
+ fESDpidFlag(kFALSE), fTPCpidFlag(kFALSE), fTOFpidFlag(kFALSE),
fPointOnITSLayer1Flag(0), fPointOnITSLayer2Flag(0),
fPointOnITSLayer3Flag(0), fPointOnITSLayer4Flag(0),
fPointOnITSLayer5Flag(0), fPointOnITSLayer6Flag(0),
return kFALSE;
}
}
+ if(fTOFpidFlag) {
+ if ((track->GetStatus() & AliESDtrack::kTOFpid) == 0) {
+ if(fDebugMode)
+ Printf("IsAccepted: Track rejected because it has no TOF pid flag");
+ return kFALSE;
+ }
+ }
return kTRUE;
}
Bool_t IsUsedESDpid() const {return fESDpidFlag;}
void SetTPCpid() {fTPCpidFlag = kTRUE;}
Bool_t IsUsedTPCpid() const {return fTPCpidFlag;}
+ void SetTOFpid() {fTOFpidFlag = kTRUE;}
+ Bool_t IsUsedTOFpid() const {return fTOFpidFlag;}
TCanvas *GetListOfCuts();
Bool_t fMaxDCA3DFlag, fMaxDCA3DTPCFlag; //shows if this cut is used or not
Bool_t fMaxConstrainChi2Flag; //shows if this cut is used or not
Bool_t fITSRefitFlag, fTPCRefitFlag; //shows if this cut is used or not
- Bool_t fESDpidFlag, fTPCpidFlag; //shows if this cut is used or not
+ Bool_t fESDpidFlag, fTPCpidFlag, fTOFpidFlag; //shows if this cut is used or not
Bool_t fPointOnITSLayer1Flag, fPointOnITSLayer2Flag; //shows if this cut is used or not
Bool_t fPointOnITSLayer3Flag, fPointOnITSLayer4Flag; //shows if this cut is used or not
Bool_t fPointOnITSLayer5Flag, fPointOnITSLayer6Flag; //shows if this cut is used or not
baseAnalysis->SetMinITSClusters(5);
baseAnalysis->SetITSRefit();
baseAnalysis->SetESDpid();
+ baseAnalysis->SetTOFpid();
break;
default:
break;
}//PID mode
}//ESD
if(analysisLevel == "MC")
- baseAnalysis->SetPhaseSpace(56, -1.0, 1.0, 16, 0.1, 1.5);
+ baseAnalysis->SetPhaseSpace(10, -0.5, 0.5, 16, 0.5, 0.9);
return baseAnalysis;
}
TStopwatch timer;
timer.Start();
- runLocal("ESD",
+ /*runLocal("ESD",
esdAnalysisType,
pidMode,
- "/home/pchrist/ALICE/Baryons/QA/Local");
+ "/home/pchrist/ALICE/Baryons/QA/Local");*/
//runInteractive("ESD",esdAnalysisType,pidMode,"tag.xml");
//runBatch("ESD",esdAnalysisType,pidMode,"wn.xml");
- /*runProof("ESD",esdAnalysisType,pidMode
- 200000,"/COMMON/COMMON/LHC08c11_10TeV_0.5T",);*/
+ runProof("ESD",esdAnalysisType,pidMode,
+ 500000,0,"/COMMON/COMMON/LHC09a4_run8100X#esdTree");
timer.Stop();
timer.Print();
void runProof(const char* mode = "ESD",
const char* analysisType = 0x0,
const char* pidMode = 0x0,
- Int_t stats = 0,
+ Int_t stats = 0, Int_t startingPoint = 0,
const char* dataset = 0x0) {
TString smode = mode;
TString outputFilename = "Protons."; outputFilename += mode;
}
outputFilename += ".root";
+ gEnv->SetValue("XSec.GSI.DelegProxy","2");
printf("****** Connect to PROOF *******\n");
TProof::Open("alicecaf.cern.ch");
gProof->SetParallel();
mgr->AddTask(taskProtons);
// Create containers for input/output
- AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("dataChain",
+ /*AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("dataChain",
TChain::Class(),
- AliAnalysisManager::kInputContainer);
+ AliAnalysisManager::kInputContainer);*/
+ AliAnalysisDataContainer *cinput1 = mgr->GetCommonInputContainer();
AliAnalysisDataContainer *coutput1 = mgr->CreateContainer("outputList",
TList::Class(),
AliAnalysisManager::kOutputContainer,
mgr->PrintStatus();
if(dataset)
- mgr->StartAnalysis("proof",dataset,stats);
+ mgr->StartAnalysis("proof",dataset,stats,startingPoint);
else {
// You should get this macro and the txt file from:
// http://aliceinfo.cern.ch/Offline/Analysis/CAF/
mgr->AddTask(taskProtonsQA);
// Create containers for input/output
- AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("dataChain",
+ /*AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("dataChain",
TChain::Class(),
- AliAnalysisManager::kInputContainer);
+ AliAnalysisManager::kInputContainer);*/
+ AliAnalysisDataContainer *cinput1 = mgr->GetCommonInputContainer();
AliAnalysisDataContainer *coutput1 = mgr->CreateContainer("globalQAList",
TList::Class(),
AliAnalysisManager::kOutputContainer,
mgr->AddTask(taskProtonsQA);
// Create containers for input/output
- AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("dataChain",
+ /*AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("dataChain",
TChain::Class(),
- AliAnalysisManager::kInputContainer);
+ AliAnalysisManager::kInputContainer);*/
+ AliAnalysisDataContainer *cinput1 = mgr->GetCommonInputContainer();
AliAnalysisDataContainer *coutput1 = mgr->CreateContainer("globalQAList",
TList::Class(),
AliAnalysisManager::kOutputContainer,
mgr->AddTask(taskProtonsQA);
// Create containers for input/output
- AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("dataChain",
+ /*AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("dataChain",
TChain::Class(),
- AliAnalysisManager::kInputContainer);
+ AliAnalysisManager::kInputContainer);*/
+ AliAnalysisDataContainer *cinput1 = mgr->GetCommonInputContainer();
AliAnalysisDataContainer *coutput1 = mgr->CreateContainer("globalQAList",
TList::Class(),
AliAnalysisManager::kOutputContainer,
outputFilename4 += ".root"; //Reco and PID efficiency
TString outputFilename5 = "Vertex.QA.root"; //vertex QA
+ gEnv->SetValue("XSec.GSI.DelegProxy","2");
printf("****** Connect to PROOF *******\n");
TProof::Open("alicecaf.cern.ch");
gProof->SetParallel();
mgr->AddTask(taskProtonsQA);
// Create containers for input/output
- AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("dataChain",
+ /*AliAnalysisDataContainer *cinput1 = mgr->CreateContainer("dataChain",
TChain::Class(),
- AliAnalysisManager::kInputContainer);
+ AliAnalysisManager::kInputContainer);*/
+ AliAnalysisDataContainer *cinput1 = mgr->GetCommonInputContainer();
AliAnalysisDataContainer *coutput1 = mgr->CreateContainer("globalQAList",
TList::Class(),
AliAnalysisManager::kOutputContainer,
git://git.uio.no / u / mrichter / AliRoot.git / commitdiff