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Merged
bghanley1995 merged 1 commit into from
Mar 18, 2025
Merged

[PWGCF] Please consider the following formatting changes to #10557 #25

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1 change: 0 additions & 1 deletion PWGCF/TwoParticleCorrelations/TableProducer/identifiedBfFilter.cxx
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Original file line number Diff line number Diff line change
Expand Up @@ -1409,7 +1409,6 @@ void fillNSigmaHistos(TrackObject const& track)
fhNSigmaCombo[kIdBfProton]->Fill(sqrtf(track.tofNSigmaPr() * track.tofNSigmaPr() + actualTPCNSigmaPr * actualTPCNSigmaPr), track.tpcInnerParam());
}


/// \brief Identifies the passed track with TPC and TOF data
/// \param track the track of interest
/// \return the internal track id, -1 if not accepted
Expand Down
97 changes: 47 additions & 50 deletions PWGCF/TwoParticleCorrelations/Tasks/identifiedbf.cxx
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Original file line number Diff line number Diff line change
@@ -1,3 +1,3 @@
// Copyright 2019-2020 CERN and copyright holders of ALICE O2.
// See https://alice-o2.web.cern.ch/copyright for details of the copyright holders.
// All rights not expressly granted are reserved.
Expand All @@ -10,7 +10,7 @@
// or submit itself to any jurisdiction.
///\file identifiedbf.cxx
///\brief Fills histograms with particles and tracks to calculate the Balance Function
///\author bghanley1995@gmail.com

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#include <CCDB/BasicCCDBManager.h>
#include <TDirectory.h>
#include <TFolder.h>
Expand Down Expand Up @@ -87,22 +87,22 @@
//============================================================================================
/* histograms */
TH1F* fhVertexZA; //!<! the z vertex distribution for the current multiplicity/centrality class
std::vector<TH1F*> fhN1VsPt{nch, nullptr}; //!<! weighted single particle distribution vs \f$p_T\f$, for the different species
std::vector<TH2F*> fhN1VsEtaPhi{nch, nullptr}; //!<! weighted single particle distribution vs \f$\eta,\;\phi\f$, for the different species
std::vector<TH2F*> fhSum1PtVsEtaPhi{nch, nullptr}; //!<! accumulated sum of weighted \f$p_T\f$ vs \f$\eta,\;\phi\f$, for the different species
std::vector<TH3F*> fhN1VsZEtaPhiPt{nch, nullptr}; //!<! single particle distribution vs \f$\mbox{vtx}_z,\; \eta,\;\phi,\;p_T\f$, for the different species
std::vector<TH3F*> fhN1VsZEtaPhiPtPrimary{nch, nullptr}; //!<! single particle distribution of primary particles vs \f$\mbox{vtx}_z,\; \eta,\;\phi,\;p_T\f$, for the different species
std::vector<TH3F*> fhN1VsZEtaPhiPtSecondary{nch, nullptr}; //!<! single particle distribution of primary particles vs \f$\mbox{vtx}_z,\; \eta,\;\phi,\;p_T\f$, for the different species
std::vector<TH3F*> fhSum1PtVsZEtaPhiPt{nch, nullptr}; //!<! accumulated sum of weighted \f$p_T\f$ vs \f$\mbox{vtx}_z,\; \eta,\;\phi,\;p_T\f$, for the different species
std::vector<TH3*> fhNuaNueVsZEtaPhiPt{nch, nullptr}; //!<! NUA+NUE correction vs \f$\mbox{vtx}_z,\; \eta,\;\phi,\;p_T\f$, for the differents species
std::vector<TH2*> fhPtAvgVsEtaPhi{nch, nullptr}; //!<! average \f$p_T\f$ vs \f$\eta,\;\phi\f$, for the different species
std::vector<std::vector<TH2F*>> fhN2VsPtPt{nch, {nch, nullptr}}; //!<! weighted two particle distribution vs \f${p_T}_1, {p_T}_2\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhN2VsDEtaDPhi{nch, {nch, nullptr}}; //!<! two-particle distribution vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhN2ContVsDEtaDPhi{nch, {nch, nullptr}}; //!<! two-particle distribution continuous vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhSum2PtPtVsDEtaDPhi{nch, {nch, nullptr}}; //!<! two-particle \f$\sum {p_T}_1 {p_T}_2\f$ distribution vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhSum2DptDptVsDEtaDPhi{nch, {nch, nullptr}}; //!<! two-particle \f$\sum ({p_T}_1- <{p_T}_1>) ({p_T}_2 - <{p_T}_2>) \f$ distribution vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhSupN1N1VsDEtaDPhi{nch, {nch, nullptr}}; //!<! suppressed n1n1 two-particle distribution vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhSupPt1Pt1VsDEtaDPhi{nch, {nch, nullptr}}; //!<! suppressed \f${p_T}_1 {p_T}_2\f$ two-particle distribution vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<TH1F*> fhN1VsPt{nch, nullptr}; //!<! weighted single particle distribution vs \f$p_T\f$, for the different species
std::vector<TH2F*> fhN1VsEtaPhi{nch, nullptr}; //!<! weighted single particle distribution vs \f$\eta,\;\phi\f$, for the different species
std::vector<TH2F*> fhSum1PtVsEtaPhi{nch, nullptr}; //!<! accumulated sum of weighted \f$p_T\f$ vs \f$\eta,\;\phi\f$, for the different species
std::vector<TH3F*> fhN1VsZEtaPhiPt{nch, nullptr}; //!<! single particle distribution vs \f$\mbox{vtx}_z,\; \eta,\;\phi,\;p_T\f$, for the different species
std::vector<TH3F*> fhN1VsZEtaPhiPtPrimary{nch, nullptr}; //!<! single particle distribution of primary particles vs \f$\mbox{vtx}_z,\; \eta,\;\phi,\;p_T\f$, for the different species
std::vector<TH3F*> fhN1VsZEtaPhiPtSecondary{nch, nullptr}; //!<! single particle distribution of primary particles vs \f$\mbox{vtx}_z,\; \eta,\;\phi,\;p_T\f$, for the different species
std::vector<TH3F*> fhSum1PtVsZEtaPhiPt{nch, nullptr}; //!<! accumulated sum of weighted \f$p_T\f$ vs \f$\mbox{vtx}_z,\; \eta,\;\phi,\;p_T\f$, for the different species
std::vector<TH3*> fhNuaNueVsZEtaPhiPt{nch, nullptr}; //!<! NUA+NUE correction vs \f$\mbox{vtx}_z,\; \eta,\;\phi,\;p_T\f$, for the differents species
std::vector<TH2*> fhPtAvgVsEtaPhi{nch, nullptr}; //!<! average \f$p_T\f$ vs \f$\eta,\;\phi\f$, for the different species
std::vector<std::vector<TH2F*>> fhN2VsPtPt{nch, {nch, nullptr}}; //!<! weighted two particle distribution vs \f${p_T}_1, {p_T}_2\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhN2VsDEtaDPhi{nch, {nch, nullptr}}; //!<! two-particle distribution vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhN2ContVsDEtaDPhi{nch, {nch, nullptr}}; //!<! two-particle distribution continuous vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhSum2PtPtVsDEtaDPhi{nch, {nch, nullptr}}; //!<! two-particle \f$\sum {p_T}_1 {p_T}_2\f$ distribution vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhSum2DptDptVsDEtaDPhi{nch, {nch, nullptr}}; //!<! two-particle \f$\sum ({p_T}_1- <{p_T}_1>) ({p_T}_2 - <{p_T}_2>) \f$ distribution vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhSupN1N1VsDEtaDPhi{nch, {nch, nullptr}}; //!<! suppressed n1n1 two-particle distribution vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
std::vector<std::vector<TH2F*>> fhSupPt1Pt1VsDEtaDPhi{nch, {nch, nullptr}}; //!<! suppressed \f${p_T}_1 {p_T}_2\f$ two-particle distribution vs \f$\Delta\eta,\;\Delta\phi\f$ for the different species combinations
/* versus centrality/multiplicity profiles */
std::vector<TProfile*> fhN1VsC{nch, nullptr}; //!<! weighted single particle distribution vs event centrality/multiplicity, track 1 and 2
std::vector<TProfile*> fhSum1PtVsC{nch, nullptr}; //!<! accumulated sum of weighted \f$p_T\f$ vs event centrality/multiplicity, track 1 and 2
Expand Down Expand Up @@ -139,7 +139,7 @@
using namespace correlationstask;
using namespace o2::analysis::identifiedbffilter;
if (!(phi < phiup)) {
return phi - constants::math::TwoPI;

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} else {
return phi;
}
Expand Down Expand Up @@ -265,17 +265,15 @@
return ptavg;
}


/// \brief checks whether MC track is a physical primary or secondary
/// \param track passed MC track converted to MCParticle
template <typename TrackObject>
void trackPrimaryCheck(TrackObject const& track, float zvtx, float corr)
{
if constexpr (framework::has_type_v<aod::mctracklabel::McParticleId, typename TrackObject::all_columns>) {
if(isPrimaryCheck(track.template mcParticle_as<aod::McParticles>())){
if (isPrimaryCheck(track.template mcParticle_as<aod::McParticles>())) {
fhN1VsZEtaPhiPtPrimary[track.trackacceptedid()]->Fill(zvtx, getEtaPhiIndex(track) + 0.5, track.pt(), corr);
}
else{
} else {
fhN1VsZEtaPhiPtSecondary[track.trackacceptedid()]->Fill(zvtx, getEtaPhiIndex(track) + 0.5, track.pt(), corr);
}
}
Expand All @@ -289,7 +287,6 @@
return particle.isPhysicalPrimary();
}


/// \brief fills the singles histograms in singles execution mode
/// \param passedtracks filtered table with the tracks associated to the passed index
/// \param tix index, in the singles histogram bank, for the passed filetered track table
Expand Down Expand Up @@ -394,10 +391,10 @@
float deltaeta = track1.eta() - track2.eta();
float deltaphi = track1.phi() - track2.phi();
while (deltaphi >= deltaphiup) {
deltaphi -= constants::math::TwoPI;

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}
while (deltaphi < deltaphilow) {
deltaphi += constants::math::TwoPI;

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}
if ((fUseConversionCuts && fPairCuts.conversionCuts(track1, track2)) || (fUseTwoTrackCut && fPairCuts.twoTrackCut(track1, track2, bfield))) {
/* suppress the pair */
Expand Down Expand Up @@ -514,19 +511,19 @@
for (uint i = 0; i < nch; ++i) {
/* histograms for each track, one and two */
fhN1VsPt[i] = new TH1F(TString::Format("n1_%s_vsPt", tname[i].c_str()).Data(),
TString::Format("#LT n_{1} #GT;p_{t,%s} (GeV/c);#LT n_{1} #GT", tname[i].c_str()).Data(),
ptbins, ptlow, ptup);
TString::Format("#LT n_{1} #GT;p_{t,%s} (GeV/c);#LT n_{1} #GT", tname[i].c_str()).Data(),
ptbins, ptlow, ptup);
/* we don't want the Sumw2 structure being created here */
bool defSumw2 = TH1::GetDefaultSumw2();
if constexpr (smallsingles) {
fhN1VsEtaPhi[i] = new TH2F(TString::Format("n1_%s_vsEtaPhi", tname[i].c_str()).Data(),
TString::Format("#LT n_{1} #GT;#eta_{%s};#varphi_{%s} (radian);#LT n_{1} #GT", tname[i].c_str(), tname[i].c_str()).Data(),
etabins, etalow, etaup, phibins, philow, phiup);
TString::Format("#LT n_{1} #GT;#eta_{%s};#varphi_{%s} (radian);#LT n_{1} #GT", tname[i].c_str(), tname[i].c_str()).Data(),
etabins, etalow, etaup, phibins, philow, phiup);
fhSum1PtVsEtaPhi[i] = new TH2F(TString::Format("sumPt_%s_vsEtaPhi", tname[i].c_str()).Data(),
TString::Format("#LT #Sigma p_{t,%s} #GT;#eta_{%s};#varphi_{%s} (radian);#LT #Sigma p_{t,%s} #GT (GeV/c)",
tname[i].c_str(), tname[i].c_str(), tname[i].c_str(), tname[i].c_str())
.Data(),
etabins, etalow, etaup, phibins, philow, phiup);
TString::Format("#LT #Sigma p_{t,%s} #GT;#eta_{%s};#varphi_{%s} (radian);#LT #Sigma p_{t,%s} #GT (GeV/c)",
tname[i].c_str(), tname[i].c_str(), tname[i].c_str(), tname[i].c_str())
.Data(),
etabins, etalow, etaup, phibins, philow, phiup);
} else {
TH1::SetDefaultSumw2(false);
fhN1VsZEtaPhiPt[i] = new TH3F(
Expand All @@ -545,7 +542,7 @@
ptbins,
ptlow,
ptup);

fhN1VsZEtaPhiPtPrimary[i] = new TH3F(
TString::Format("n1_%s_Primary_vsZ_vsEtaPhi_vsPt", tname[i].c_str()).Data(),
TString::Format("#LT n_{1} Primary #GT;vtx_{z};#eta_{%s}#times#varphi_{%s};p_{t,%s} (GeV/c)",
Expand Down Expand Up @@ -636,24 +633,24 @@
for (uint i = 0; i < nch; ++i) {
/* histograms for each track species */
fhN1VsEtaPhi[i] = new TH2F(TString::Format("n1_%s_vsEtaPhi", tname[i].c_str()).Data(),
TString::Format("#LT n_{1} #GT;#eta_{%s};#varphi_{%s} (radian);#LT n_{1} #GT", tname[i].c_str(), tname[i].c_str()).Data(),
etabins, etalow, etaup, phibins, philow, phiup);
TString::Format("#LT n_{1} #GT;#eta_{%s};#varphi_{%s} (radian);#LT n_{1} #GT", tname[i].c_str(), tname[i].c_str()).Data(),
etabins, etalow, etaup, phibins, philow, phiup);
fhSum1PtVsEtaPhi[i] = new TH2F(TString::Format("sumPt_%s_vsEtaPhi", tname[i].c_str()).Data(),
TString::Format("#LT #Sigma p_{t,%s} #GT;#eta_{%s};#varphi_{%s} (radian);#LT #Sigma p_{t,%s} #GT (GeV/c)",
tname[i].c_str(), tname[i].c_str(), tname[i].c_str(), tname[i].c_str())
.Data(),
etabins, etalow, etaup, phibins, philow, phiup);
TString::Format("#LT #Sigma p_{t,%s} #GT;#eta_{%s};#varphi_{%s} (radian);#LT #Sigma p_{t,%s} #GT (GeV/c)",
tname[i].c_str(), tname[i].c_str(), tname[i].c_str(), tname[i].c_str())
.Data(),
etabins, etalow, etaup, phibins, philow, phiup);
fhN1VsC[i] = new TProfile(TString::Format("n1_%s_vsM", tname[i].c_str()).Data(),
TString::Format("#LT n_{1} #GT (weighted);Centrality/Multiplicity (%%);#LT n_{1} #GT").Data(),
100, 0.0, 100.0);
TString::Format("#LT n_{1} #GT (weighted);Centrality/Multiplicity (%%);#LT n_{1} #GT").Data(),
100, 0.0, 100.0);
fhSum1PtVsC[i] = new TProfile(TString::Format("sumPt_%s_vsM", tname[i].c_str()),
TString::Format("#LT #Sigma p_{t,%s} #GT (weighted);Centrality/Multiplicity (%%);#LT #Sigma p_{t,%s} #GT (GeV/c)", tname[i].c_str(), tname[i].c_str()).Data(),
100, 0.0, 100.0);
TString::Format("#LT #Sigma p_{t,%s} #GT (weighted);Centrality/Multiplicity (%%);#LT #Sigma p_{t,%s} #GT (GeV/c)", tname[i].c_str(), tname[i].c_str()).Data(),
100, 0.0, 100.0);
fhN1NWVsC[i] = new TProfile(TString::Format("n1Nw_%s_vsM", tname[i].c_str()).Data(),
TString::Format("#LT n_{1} #GT;Centrality/Multiplicity (%%);#LT n_{1} #GT").Data(),
100, 0.0, 100.0);
TString::Format("#LT n_{1} #GT;Centrality/Multiplicity (%%);#LT n_{1} #GT").Data(),
100, 0.0, 100.0);
fhSum1PtNWVsC[i] = new TProfile(TString::Format("sumPtNw_%s_vsM", tname[i].c_str()).Data(),
TString::Format("#LT #Sigma p_{t,%s} #GT;Centrality/Multiplicity (%%);#LT #Sigma p_{t,%s} #GT (GeV/c)", tname[i].c_str(), tname[i].c_str()).Data(), 100, 0.0, 100.0);
TString::Format("#LT #Sigma p_{t,%s} #GT;Centrality/Multiplicity (%%);#LT #Sigma p_{t,%s} #GT (GeV/c)", tname[i].c_str(), tname[i].c_str()).Data(), 100, 0.0, 100.0);
fhNuaNueVsZEtaPhiPt[i] = nullptr;
fhPtAvgVsEtaPhi[i] = nullptr;
fOutputList->Add(fhN1VsEtaPhi[i]);
Expand All @@ -672,22 +669,22 @@
// const char* pname = chargePairsNames[i][j].c_str();
const char* pname = speciesPairNames[i][j].c_str();
fhN2VsDEtaDPhi[i][j] = new TH2F(TString::Format("n2_12_vsDEtaDPhi_%s", pname), TString::Format("#LT n_{2} #GT (%s);#Delta#eta;#Delta#varphi;#LT n_{2} #GT", pname),
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
fhN2ContVsDEtaDPhi[i][j] = new TH2F(TString::Format("n2_12cont_vsDEtaDPhi_%s", pname), TString::Format("#LT n_{2} #GT (%s);#Delta#eta;#Delta#varphi;#LT n_{2} #GT", pname),
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
fhSum2PtPtVsDEtaDPhi[i][j] = new TH2F(TString::Format("sumPtPt_12_vsDEtaDPhi_%s", pname), TString::Format("#LT #Sigma p_{t,1}p_{t,2} #GT (%s);#Delta#eta;#Delta#varphi;#LT #Sigma p_{t,1}p_{t,2} #GT (GeV^{2})", pname),
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
fhSum2DptDptVsDEtaDPhi[i][j] = new TH2F(TString::Format("sumDptDpt_12_vsDEtaDPhi_%s", pname), TString::Format("#LT #Sigma (p_{t,1} - #LT p_{t,1} #GT)(p_{t,2} - #LT p_{t,2} #GT) #GT (%s);#Delta#eta;#Delta#varphi;#LT #Sigma (p_{t,1} - #LT p_{t,1} #GT)(p_{t,2} - #LT p_{t,2} #GT) #GT (GeV^{2})", pname),
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
fhSupN1N1VsDEtaDPhi[i][j] = new TH2F(TString::Format("suppn1n1_12_vsDEtaDPhi_%s", pname), TString::Format("Suppressed #LT n_{1} #GT#LT n_{1} #GT (%s);#Delta#eta;#Delta#varphi;#LT n_{1} #GT#LT n_{1} #GT", pname),
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
fhSupPt1Pt1VsDEtaDPhi[i][j] = new TH2F(TString::Format("suppPtPt_12_vsDEtaDPhi_%s", pname), TString::Format("Suppressed #LT p_{t,1} #GT#LT p_{t,2} #GT (%s);#Delta#eta;#Delta#varphi;#LT p_{t,1} #GT#LT p_{t,2} #GT (GeV^{2})", pname),
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
deltaetabins, deltaetalow, deltaetaup, deltaphibins, deltaphilow, deltaphiup);
/* we return it back to previuos state */
TH1::SetDefaultSumw2(defSumw2);

fhN2VsPtPt[i][j] = new TH2F(TString::Format("n2_12_vsPtVsPt_%s", pname), TString::Format("#LT n_{2} #GT (%s);p_{t,1} (GeV/c);p_{t,2} (GeV/c);#LT n_{2} #GT", pname),
ptbins, ptlow, ptup, ptbins, ptlow, ptup);
ptbins, ptlow, ptup, ptbins, ptlow, ptup);

fhN2VsC[i][j] = new TProfile(TString::Format("n2_12_vsM_%s", pname), TString::Format("#LT n_{2} #GT (%s) (weighted);Centrality/Multiplicity (%%);#LT n_{2} #GT", pname), 100, 0.0, 100.0);
fhSum2PtPtVsC[i][j] = new TProfile(TString::Format("sumPtPt_12_vsM_%s", pname), TString::Format("#LT #Sigma p_{t,1}p_{t,2} #GT (%s) (weighted);Centrality/Multiplicity (%%);#LT #Sigma p_{t,1}p_{t,2} #GT (GeV^{2})", pname), 100, 0.0, 100.0);
Expand Down Expand Up @@ -1143,7 +1140,7 @@
int64_t firstNotAssignedIndex = -1;
int64_t lastNotAssignedIndex = -1;

for (auto track : tracks) {

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if (track.has_collision()) {
nAssignedTracks++;
} else {
Expand All @@ -1170,7 +1167,7 @@
int64_t firstNotAssignedIndex = -1;
int64_t lastNotAssignedIndex = -1;

for (auto particle : particles) {

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if (particle.has_mcCollision()) {
nAssignedParticles++;
} else {
Expand Down Expand Up @@ -1404,7 +1401,7 @@
WorkflowSpec defineDataProcessing(ConfigContext const& cfgc)
{
WorkflowSpec workflow{
adaptAnalysisTask<IdentifiedBfCorrelationsTask>(cfgc, TaskName{"IdentifiedBfCorrelationsTaskRec"}, SetDefaultProcesses{{{"processRecLevel", true}, {"processRecLevelMixed", false}, {"processCleaner", false}}}),

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Device name identified-bf-correlations-task-rec from the specified task name IdentifiedBfCorrelationsTaskRec is an extension of the device name identified-bf-correlations-task from the struct name IdentifiedBfCorrelationsTask but the struct is not templated. Is it adapted multiple times?
adaptAnalysisTask<IdentifiedBfCorrelationsTask>(cfgc, TaskName{"IdentifiedBfCorrelationsTaskGen"}, SetDefaultProcesses{{{"processGenLevel", false}, {"processGenLevelMixed", false}, {"processCleaner", true}}})};
return workflow;
}
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