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Comparing UserCode/MitHzz4l/LeptonSelection/src/IsolationSelection.cc (file contents):
Revision 1.2 by khahn, Fri Feb 17 14:49:00 2012 UTC vs.
Revision 1.31 by khahn, Tue Jun 12 01:23:03 2012 UTC

#	Line 3 | Line 3
3		#include "IsolationSelection.h"
4		#include "IsolationSelectionDefs.h"
5
6	<	bool pairwiseIsoSelection( ControlFlags &ctrl, vector<SimpleLepton> &lepvec, float rho ) {
6	>	#include "MathUtils.h"
7	>	#include "MuonTools.h"
8	>	#include "MuonIDMVA.h"
9	>	#include "ElectronTools.h"
10	>	#include "ElectronIDMVA.h"
11	>
12	>	using namespace mithep;
13	>
14	>	mithep::MuonIDMVA     * muIsoMVA;
15	>	mithep::MuonTools       muT;
16	>	mithep::ElectronIDMVA * eleIsoMVA;
17	>	mithep::ElectronTools   eleT;
18	>
19	>	// global hack to sync
20	>	double gChargedIso;
21	>	double gGammaIso;
22	>	double gNeutralIso;
23	>
24	>	extern vector<bool> PFnoPUflag;
25	>
26	>	//--------------------------------------------------------------------------------------------------
27	>	Float_t computePFMuonIso(const mithep::Muon *muon,
28	>	const mithep::Vertex * vtx,
29	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
30	>	const Double_t dRMax)
31	>	//--------------------------------------------------------------------------------------------------
32	>	{
33	>	const Double_t dRMin    = 0;
34	>	const Double_t neuPtMin = 1.0;
35	>	const Double_t dzMax    = 0.1;
36	>
37	>	Double_t zLepton = (muon->BestTrk()) ? muon->BestTrk()->DzCorrected(*vtx) : 0.0;
38	>
39	>	Float_t iso=0;
40	>	for(UInt_t ipf=0; ipf<fPFCandidates->GetEntries(); ipf++) {
41	>	const PFCandidate *pfcand = fPFCandidates->At(ipf);
42	>
43	>	if(!pfcand->HasTrk() && (pfcand->Pt()<=neuPtMin)) continue;  // pT cut on neutral particles
44	>
45	>	// exclude THE muon
46	>	if(pfcand->TrackerTrk() && muon->TrackerTrk() && (pfcand->TrackerTrk()==muon->TrackerTrk())) continue;
47	>
48	>	// dz cut
49	>	Double_t dz = (pfcand->BestTrk()) ? fabs(pfcand->BestTrk()->DzCorrected(*vtx) - zLepton) : 0;
50	>	if(dz >= dzMax) continue;
51	>
52	>	// check iso cone
53	>	Double_t dr = MathUtils::DeltaR(muon->Mom(), pfcand->Mom());
54	>	if(dr<dRMax && dr>=dRMin)
55	>	iso += pfcand->Pt();
56	>	}
57	>
58	>	return iso;
59	>	}
60	>
61	>	//--------------------------------------------------------------------------------------------------
62	>	Float_t computePFEleIso(const mithep::Electron *electron,
63	>	const mithep::Vertex * fVertex,
64	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
65	>	const Double_t dRMax)
66	>	//--------------------------------------------------------------------------------------------------
67	>	{
68	>	const Double_t dRMin    = 0;
69	>	const Double_t neuPtMin = 1.0;
70	>	const Double_t dzMax    = 0.1;
71	>
72	>	Double_t zLepton = (electron->BestTrk()) ? electron->BestTrk()->DzCorrected(*fVertex) : 0.0;
73	>
74	>	Float_t iso=0;
75	>	for(UInt_t ipf=0; ipf<fPFCandidates->GetEntries(); ipf++) {
76	>	const PFCandidate *pfcand = (PFCandidate*)(fPFCandidates->At(ipf));
77	>
78	>	if(!pfcand->HasTrk() && (pfcand->Pt()<=neuPtMin)) continue;  // pT cut on neutral particles
79	>
80	>	// dz cut
81	>	Double_t dz = (pfcand->BestTrk()) ? fabs(pfcand->BestTrk()->DzCorrected(*fVertex) - zLepton) : 0;
82	>	if(dz >= dzMax) continue;
83	>
84	>	// remove THE electron
85	>	if(pfcand->TrackerTrk() && electron->TrackerTrk() && (pfcand->TrackerTrk()==electron->TrackerTrk())) continue;
86	>	if(pfcand->GsfTrk()     && electron->GsfTrk()     && (pfcand->GsfTrk()==electron->GsfTrk()))         continue;
87	>
88	>	// check iso cone
89	>	Double_t dr = MathUtils::DeltaR(electron->Mom(), pfcand->Mom());
90	>	if(dr<dRMax && dr>=dRMin) {
91	>	// eta-strip veto for photons
92	>	if((pfcand->PFType() == PFCandidate::eGamma) && fabs(electron->Eta() - pfcand->Eta()) < 0.025) continue;
93	>
94	>	// Inner cone (one tower = dR < 0.07) veto for non-photon neutrals
95	>	if(!pfcand->HasTrk() && (pfcand->PFType() == PFCandidate::eNeutralHadron) &&
96	>	(MathUtils::DeltaR(electron->Mom(), pfcand->Mom()) < 0.07)) continue;
97	>
98	>	iso += pfcand->Pt();
99	>	}
100	>	}
101	>
102	>	return iso;
103	>	};
104	>
105	>	//--------------------------------------------------------------------------------------------------
106	>	bool pairwiseIsoSelection( ControlFlags &ctrl,
107	>	vector<SimpleLepton> &lepvec,
108	>	float rho )
109	>	//--------------------------------------------------------------------------------------------------
110	>	{
111
112		bool passiso=true;
113
#	Line 60 | Line 164 | bool pairwiseIsoSelection( ControlFlags
164
165		float isoEcal_corr_j = lepvec[j].isoEcal - (effArea_ecal_j*rho);
166		float isoHcal_corr_j = lepvec[j].isoHcal - (effArea_hcal_j*rho);
167	<	float RIso_i = (lepvec[i].isoTrk+isoEcal_corr_i+isoHcal_corr_i)/lepvec[i].vec->Pt();
168	<	float RIso_j = (lepvec[j].isoTrk+isoEcal_corr_j+isoHcal_corr_j)/lepvec[j].vec->Pt();
167	>	float RIso_i = (lepvec[i].isoTrk+isoEcal_corr_i+isoHcal_corr_i)/lepvec[i].vec.Pt();
168	>	float RIso_j = (lepvec[j].isoTrk+isoEcal_corr_j+isoHcal_corr_j)/lepvec[j].vec.Pt();
169		float comboIso = RIso_i + RIso_j;
170
171		if( comboIso > 0.35 ) {
#	Line 75 | Line 179 | bool pairwiseIsoSelection( ControlFlags
179		return passiso;
180		}
181
182	<
183	<	SelectionStatus passMuonIsoSelection( ControlFlags &ctrl, const mithep::TMuon * mu ) {
184	<
185	<	float reliso = mu->pfIso03/mu->pt;
186	<	bool isEB = (fabs(mu->eta) < 1.479 ? 1 : 0 );
182	>	//--------------------------------------------------------------------------------------------------
183	>	SelectionStatus muonIsoSelection(ControlFlags &ctrl,
184	>	const mithep::Muon * mu,
185	>	const mithep::Vertex * vtx,
186	>	const mithep::Array<mithep::PFCandidate> * fPFCandidateCol   )
187	>	//--------------------------------------------------------------------------------------------------
188	>	{
189	>	float reliso = computePFMuonIso(mu,vtx,fPFCandidateCol,0.3)/mu->Pt();
190	>	bool isEB = (fabs(mu->Eta()) < 1.479 ? 1 : 0 );
191		bool failiso = false;
192	<	if( isEB && mu->pt > 20 && reliso > PFISO_MU_LOOSE_EB_HIGHPT ) {
192	>	if( isEB && mu->Pt() > 20 && reliso > PFISO_MU_LOOSE_EB_HIGHPT ) {
193		failiso = true;
194		}
195	<	if( isEB && mu->pt < 20 && reliso > PFISO_MU_LOOSE_EB_LOWPT ) {
195	>	if( isEB && mu->Pt() < 20 && reliso > PFISO_MU_LOOSE_EB_LOWPT ) {
196		failiso = true;
197		}
198	<	if( !(isEB) && mu->pt > 20 && reliso > PFISO_MU_LOOSE_EE_HIGHPT ) {
198	>	if( !(isEB) && mu->Pt() > 20 && reliso > PFISO_MU_LOOSE_EE_HIGHPT ) {
199		failiso = true;
200		}
201	<	if( !(isEB) && mu->pt < 20 && reliso > PFISO_MU_LOOSE_EE_LOWPT ) {
201	>	if( !(isEB) && mu->Pt() < 20 && reliso > PFISO_MU_LOOSE_EE_LOWPT ) {
202		failiso = true;
203		}
204
#	Line 101 | Line 209 | SelectionStatus passMuonIsoSelection( Co
209
210		};
211
212	<
213	<	SelectionStatus failEleIso(ControlFlags &ctrl, const mithep::TElectron * ele) {
212	>	//--------------------------------------------------------------------------------------------------
213	>	SelectionStatus electronIsoSelection(ControlFlags &ctrl,
214	>	const mithep::Electron * ele,
215	>	const mithep::Vertex *fVertex,
216	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates)
217	>	//--------------------------------------------------------------------------------------------------
218	>	{
219
220		bool failiso=false;
221
222	<	float reliso = ele->pfIso04/ele->pt;
223	<	bool isEB = (fabs(ele->eta) < 1.479 ? 1 : 0 );
224	<	if( isEB && ele->pt > 20 && reliso > PFISO_ELE_LOOSE_EB_HIGHPT ) {
222	>	float reliso = computePFEleIso(ele,fVertex,fPFCandidates,0.4)/ele->Pt();
223	>
224	>	if( ele->IsEB() && ele->Pt() > 20 && reliso > PFISO_ELE_LOOSE_EB_HIGHPT ) {
225		failiso = true;
226		}
227	<	if( isEB && ele->pt < 20 && reliso > PFISO_ELE_LOOSE_EB_LOWPT ) {
227	>	if( ele->IsEB() && ele->Pt() < 20 && reliso > PFISO_ELE_LOOSE_EB_LOWPT ) {
228		failiso = true;
229		}
230	<	if(ctrl.debug) cout << "before iso check ..." << endl;
118	<	if( !(isEB) && ele->pt > 20 && reliso > PFISO_ELE_LOOSE_EE_HIGHPT ) {
119	<	if(ctrl.debug) cout << "\tit fails ..." << endl;
230	>	if( !(ele->IsEB()) && ele->Pt() > 20 && reliso > PFISO_ELE_LOOSE_EE_HIGHPT ) {
231		failiso = true;
232		}
233	<	if( !(isEB) && ele->pt < 20 && reliso > PFISO_ELE_LOOSE_EE_LOWPT ) {
233	>	if( !(ele->IsEB()) && ele->Pt() < 20 && reliso > PFISO_ELE_LOOSE_EE_LOWPT ) {
234		failiso = true;
235		}
236
237		SelectionStatus status;
238		if( !failiso ) {
239	<	status.setStatus(SelectionStatus::LOOSEISO);
240	<	status.setStatus(SelectionStatus::TIGHTISO);
239	>	status.orStatus(SelectionStatus::LOOSEISO);
240	>	status.orStatus(SelectionStatus::TIGHTISO);
241	>	}
242	>	if(ctrl.debug) cout << "returning status : " << hex << status.getStatus() << dec << endl;
243	>	return status;
244	>
245	>	}
246	>
247	>
248	>	bool noIso(ControlFlags &, vector<SimpleLepton> &, float rho) {
249	>
250	>	return true;
251	>	}
252	>
253	>
254	>	//--------------------------------------------------------------------------------------------------
255	>	SelectionStatus muonIsoMVASelection(ControlFlags &ctrl,
256	>	const mithep::Muon * mu,
257	>	const mithep::Vertex * vtx,
258	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
259	>	const mithep::Array<mithep::PileupEnergyDensity> * fPUEnergyDensity,
260	>	mithep::MuonTools::EMuonEffectiveAreaTarget EffectiveAreaVersion,
261	>	vector<const mithep::Muon*> muonsToVeto,
262	>	vector<const mithep::Electron*> electronsToVeto)
263	>	//--------------------------------------------------------------------------------------------------
264	>	{
265	>
266	>	if( ctrl.debug ) {
267	>	cout << "muonIsoMVASelection :: muons to veto " << endl;
268	>	for( int i=0; i<muonsToVeto.size(); i++ ) {
269	>	const mithep::Muon * vmu = muonsToVeto[i];
270	>	cout << "\tpt: " << vmu->Pt()
271	>	<< "\teta: " << vmu->Eta()
272	>	<< "\tphi: " << vmu->Phi()
273	>	<< endl;
274	>	}
275	>	cout << "muonIsoMVASelection :: electrson to veto " << endl;
276	>	for( int i=0; i<electronsToVeto.size(); i++ ) {
277	>	const mithep::Electron * vel = electronsToVeto[i];
278	>	cout << "\tpt: " << vel->Pt()
279	>	<< "\teta: " << vel->Eta()
280	>	<< "\tphi: " << vel->Phi()
281	>	<< endl;
282	>	}
283	>	}
284	>	bool failiso=false;
285	>
286	>	//
287	>	// tmp iso rings
288	>	//
289	>	Double_t tmpChargedIso_DR0p0To0p1  = 0;
290	>	Double_t tmpChargedIso_DR0p1To0p2  = 0;
291	>	Double_t tmpChargedIso_DR0p2To0p3  = 0;
292	>	Double_t tmpChargedIso_DR0p3To0p4  = 0;
293	>	Double_t tmpChargedIso_DR0p4To0p5  = 0;
294	>	Double_t tmpChargedIso_DR0p5To0p7  = 0;
295	>
296	>	Double_t tmpGammaIso_DR0p0To0p1  = 0;
297	>	Double_t tmpGammaIso_DR0p1To0p2  = 0;
298	>	Double_t tmpGammaIso_DR0p2To0p3  = 0;
299	>	Double_t tmpGammaIso_DR0p3To0p4  = 0;
300	>	Double_t tmpGammaIso_DR0p4To0p5  = 0;
301	>	Double_t tmpGammaIso_DR0p5To0p7  = 0;
302	>
303	>	Double_t tmpNeutralHadronIso_DR0p0To0p1  = 0;
304	>	Double_t tmpNeutralHadronIso_DR0p1To0p2  = 0;
305	>	Double_t tmpNeutralHadronIso_DR0p2To0p3  = 0;
306	>	Double_t tmpNeutralHadronIso_DR0p3To0p4  = 0;
307	>	Double_t tmpNeutralHadronIso_DR0p4To0p5  = 0;
308	>	Double_t tmpNeutralHadronIso_DR0p5To0p7  = 0;
309	>
310	>
311	>
312	>	//
313	>	// final rings for the MVA
314	>	//
315	>	Double_t fChargedIso_DR0p0To0p1;
316	>	Double_t fChargedIso_DR0p1To0p2;
317	>	Double_t fChargedIso_DR0p2To0p3;
318	>	Double_t fChargedIso_DR0p3To0p4;
319	>	Double_t fChargedIso_DR0p4To0p5;
320	>	Double_t fChargedIso_DR0p5To0p7;
321	>
322	>	Double_t fGammaIso_DR0p0To0p1;
323	>	Double_t fGammaIso_DR0p1To0p2;
324	>	Double_t fGammaIso_DR0p2To0p3;
325	>	Double_t fGammaIso_DR0p3To0p4;
326	>	Double_t fGammaIso_DR0p4To0p5;
327	>	Double_t fGammaIso_DR0p5To0p7;
328	>
329	>	Double_t fNeutralHadronIso_DR0p0To0p1;
330	>	Double_t fNeutralHadronIso_DR0p1To0p2;
331	>	Double_t fNeutralHadronIso_DR0p2To0p3;
332	>	Double_t fNeutralHadronIso_DR0p3To0p4;
333	>	Double_t fNeutralHadronIso_DR0p4To0p5;
334	>	Double_t fNeutralHadronIso_DR0p5To0p7;
335	>
336	>
337	>	//
338	>	//Loop over PF Candidates
339	>	//
340	>	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
341	>
342	>	if( !(PFnoPUflag[k]) ) continue; // my PF no PU hack
343	>
344	>	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
345	>
346	>	Double_t deta = (mu->Eta() - pf->Eta());
347	>	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(mu->Phi()),Double_t(pf->Phi()));
348	>	Double_t dr = mithep::MathUtils::DeltaR(mu->Phi(),mu->Eta(), pf->Phi(), pf->Eta());
349	>	if (dr > 1.0) continue;
350	>
351	>	if (pf->HasTrackerTrk() && (pf->TrackerTrk() == mu->TrackerTrk()) ) continue;
352	>
353	>	//
354	>	// Lepton Footprint Removal
355	>	//
356	>	Bool_t IsLeptonFootprint = kFALSE;
357	>	if (dr < 1.0) {
358	>
359	>	//
360	>	// Check for electrons
361	>	//
362	>	for (Int_t q=0; q < electronsToVeto.size(); ++q) {
363	>	const mithep::Electron *tmpele = electronsToVeto[q];
364	>	// 4l electron
365	>	if( pf->HasTrackerTrk() ) {
366	>	if( pf->TrackerTrk() == tmpele->TrackerTrk() )
367	>	IsLeptonFootprint = kTRUE;
368	>	}
369	>	if( pf->HasGsfTrk() ) {
370	>	if( pf->GsfTrk() == tmpele->GsfTrk() )
371	>	IsLeptonFootprint = kTRUE;
372	>	}
373	>	// PF charged
374	>	if (pf->Charge() != 0 && fabs(tmpele->SCluster()->Eta()) >= 1.479
375	>	&& mithep::MathUtils::DeltaR(tmpele->Phi(),tmpele->Eta(), pf->Phi(), pf->Eta()) < 0.015)
376	>	IsLeptonFootprint = kTRUE;
377	>	// PF gamma
378	>	if (abs(pf->PFType()) == PFCandidate::eGamma && fabs(tmpele->SCluster()->Eta()) >= 1.479
379	>	&& mithep::MathUtils::DeltaR(tmpele->Phi(),tmpele->Eta(), pf->Phi(), pf->Eta()) < 0.08)
380	>	IsLeptonFootprint = kTRUE;
381	>	} // loop over electrons
382	>
383	>	/* KH - commented for sync
384	>	//
385	>	// Check for muons
386	>	//
387	>	for (Int_t q=0; q < muonsToVeto.size(); ++q) {
388	>	const mithep::Muon *tmpmu = muonsToVeto[q];
389	>	// 4l muon
390	>	if( pf->HasTrackerTrk() ) {
391	>	if( pf->TrackerTrk() == tmpmu->TrackerTrk() )
392	>	IsLeptonFootprint = kTRUE;
393	>	}
394	>	// PF charged
395	>	if (pf->Charge() != 0 && mithep::MathUtils::DeltaR(tmpmu->Phi(),tmpmu->Eta(), pf->Phi(), pf->Eta()) < 0.01)
396	>	IsLeptonFootprint = kTRUE;
397	>	} // loop over muons
398	>	*/
399	>
400	>	if (IsLeptonFootprint)
401	>	continue;
402	>
403	>	//
404	>	// Charged Iso Rings
405	>	//
406	>	if (pf->Charge() != 0 && (pf->HasTrackerTrk()||pf->HasGsfTrk()) ) {
407	>
408	>	if( dr < 0.01 ) continue; // only for muon iso mva?
409	>	if (abs(pf->PFType()) == PFCandidate::eElectron || abs(pf->PFType()) == PFCandidate::eMuon) continue;
410	>
411	>	//       if( pf->HasTrackerTrk() ) {
412	>	//      if (abs(pf->TrackerTrk()->DzCorrected(vtx)) > 0.2) continue;
413	>	//      if( ctrl.debug ) cout << "charged:: " << pf->PFType() << " " << pf->Pt() << " "
414	>	//                            << abs(pf->TrackerTrk()->DzCorrected(vtx)) << " "
415	>	//                            << dr << endl;
416	>	//       }
417	>	//       if( pf->HasGsfTrk() ) {
418	>	//      if (abs(pf->GsfTrk()->DzCorrected(vtx)) > 0.2) continue;
419	>	//      if( ctrl.debug ) cout << "charged:: " << pf->PFType() << " " << pf->Pt() << " "
420	>	//                            << abs(pf->GsfTrk()->DzCorrected(vtx)) << " "
421	>	//                            << dr << endl;
422	>	//       }
423	>
424	>	// Footprint Veto
425	>	if (dr < 0.1) tmpChargedIso_DR0p0To0p1 += pf->Pt();
426	>	if (dr >= 0.1 && dr < 0.2) tmpChargedIso_DR0p1To0p2 += pf->Pt();
427	>	if (dr >= 0.2 && dr < 0.3) tmpChargedIso_DR0p2To0p3 += pf->Pt();
428	>	if (dr >= 0.3 && dr < 0.4) tmpChargedIso_DR0p3To0p4 += pf->Pt();
429	>	if (dr >= 0.4 && dr < 0.5) tmpChargedIso_DR0p4To0p5 += pf->Pt();
430	>	if (dr >= 0.5 && dr < 0.7) tmpChargedIso_DR0p5To0p7 += pf->Pt();
431	>	}
432	>
433	>	//
434	>	// Gamma Iso Rings
435	>	//
436	>	else if (abs(pf->PFType()) == PFCandidate::eGamma) {
437	>	if (dr < 0.1) tmpGammaIso_DR0p0To0p1 += pf->Pt();
438	>	if (dr >= 0.1 && dr < 0.2) tmpGammaIso_DR0p1To0p2 += pf->Pt();
439	>	if (dr >= 0.2 && dr < 0.3) tmpGammaIso_DR0p2To0p3 += pf->Pt();
440	>	if (dr >= 0.3 && dr < 0.4) tmpGammaIso_DR0p3To0p4 += pf->Pt();
441	>	if (dr >= 0.4 && dr < 0.5) tmpGammaIso_DR0p4To0p5 += pf->Pt();
442	>	if (dr >= 0.5 && dr < 0.7) tmpGammaIso_DR0p5To0p7 += pf->Pt();
443	>	}
444	>
445	>	//
446	>	// Other Neutral Iso Rings
447	>	//
448	>	else {
449	>	if (dr < 0.1) tmpNeutralHadronIso_DR0p0To0p1 += pf->Pt();
450	>	if (dr >= 0.1 && dr < 0.2) tmpNeutralHadronIso_DR0p1To0p2 += pf->Pt();
451	>	if (dr >= 0.2 && dr < 0.3) tmpNeutralHadronIso_DR0p2To0p3 += pf->Pt();
452	>	if (dr >= 0.3 && dr < 0.4) tmpNeutralHadronIso_DR0p3To0p4 += pf->Pt();
453	>	if (dr >= 0.4 && dr < 0.5) tmpNeutralHadronIso_DR0p4To0p5 += pf->Pt();
454	>	if (dr >= 0.5 && dr < 0.7) tmpNeutralHadronIso_DR0p5To0p7 += pf->Pt();
455	>	}
456	>
457	>	}
458	>
459	>	}
460	>
461	>	fChargedIso_DR0p0To0p1   = fmin((tmpChargedIso_DR0p0To0p1)/mu->Pt(), 2.5);
462	>	fChargedIso_DR0p1To0p2   = fmin((tmpChargedIso_DR0p1To0p2)/mu->Pt(), 2.5);
463	>	fChargedIso_DR0p2To0p3   = fmin((tmpChargedIso_DR0p2To0p3)/mu->Pt(), 2.5);
464	>	fChargedIso_DR0p3To0p4   = fmin((tmpChargedIso_DR0p3To0p4)/mu->Pt(), 2.5);
465	>	fChargedIso_DR0p4To0p5   = fmin((tmpChargedIso_DR0p4To0p5)/mu->Pt(), 2.5);
466	>
467	>
468	>	double rho = 0;
469	>	if (!(isnan(fPUEnergyDensity->At(0)->Rho()) || isinf(fPUEnergyDensity->At(0)->Rho())))
470	>	rho = fPUEnergyDensity->At(0)->Rho();
471	>
472	>	//   if (!(isnan(fPUEnergyDensity->At(0)->RhoLowEta()) || isinf(fPUEnergyDensity->At(0)->RhoLowEta())))
473	>	//     rho = fPUEnergyDensity->At(0)->RhoLowEta();
474	>
475	>	// WARNING!!!!
476	>	// hardcode for sync ...
477	>	EffectiveAreaVersion = muT.kMuEAData2011;
478	>	// WARNING!!!!
479	>
480	>
481	>	fGammaIso_DR0p0To0p1 = fmax(fmin((tmpGammaIso_DR0p0To0p1
482	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaIsoDR0p0To0p1,mu->Eta(),EffectiveAreaVersion))/mu->Pt()
483	>	,2.5)
484	>	,0.0);
485	>	fGammaIso_DR0p1To0p2 = fmax(fmin((tmpGammaIso_DR0p1To0p2
486	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaIsoDR0p1To0p2,mu->Eta(),EffectiveAreaVersion))/mu->Pt()
487	>	,2.5)
488	>	,0.0);
489	>	fGammaIso_DR0p2To0p3 = fmax(fmin((tmpGammaIso_DR0p2To0p3
490	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaIsoDR0p2To0p3,mu->Eta(),EffectiveAreaVersion))/mu->Pt()
491	>	,2.5)
492	>	,0.0);
493	>	fGammaIso_DR0p3To0p4 = fmax(fmin((tmpGammaIso_DR0p3To0p4
494	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaIsoDR0p3To0p4,mu->Eta(),EffectiveAreaVersion))/mu->Pt()
495	>	,2.5)
496	>	,0.0);
497	>	fGammaIso_DR0p4To0p5 = fmax(fmin((tmpGammaIso_DR0p4To0p5
498	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaIsoDR0p4To0p5,mu->Eta(),EffectiveAreaVersion))/mu->Pt()
499	>	,2.5)
500	>	,0.0);
501	>
502	>
503	>
504	>	fNeutralHadronIso_DR0p0To0p1 = fmax(fmin((tmpNeutralHadronIso_DR0p0To0p1
505	>	-rho*muT.MuonEffectiveArea(muT.kMuNeutralHadronIsoDR0p0To0p1,
506	>	mu->Eta(),EffectiveAreaVersion))/mu->Pt()
507	>	, 2.5)
508	>	, 0.0);
509	>	fNeutralHadronIso_DR0p1To0p2 = fmax(fmin((tmpNeutralHadronIso_DR0p1To0p2
510	>	-rho*muT.MuonEffectiveArea(muT.kMuNeutralHadronIsoDR0p1To0p2,
511	>	mu->Eta(),EffectiveAreaVersion))/mu->Pt()
512	>	, 2.5)
513	>	, 0.0);
514	>	fNeutralHadronIso_DR0p2To0p3 = fmax(fmin((tmpNeutralHadronIso_DR0p2To0p3
515	>	-rho*muT.MuonEffectiveArea(muT.kMuNeutralHadronIsoDR0p2To0p3,
516	>	mu->Eta(),EffectiveAreaVersion))/mu->Pt()
517	>	, 2.5)
518	>	, 0.0);
519	>	fNeutralHadronIso_DR0p3To0p4 = fmax(fmin((tmpNeutralHadronIso_DR0p3To0p4
520	>	-rho*muT.MuonEffectiveArea(muT.kMuNeutralHadronIsoDR0p3To0p4,
521	>	mu->Eta(), EffectiveAreaVersion))/mu->Pt()
522	>	, 2.5)
523	>	, 0.0);
524	>	fNeutralHadronIso_DR0p4To0p5 = fmax(fmin((tmpNeutralHadronIso_DR0p4To0p5
525	>	-rho*muT.MuonEffectiveArea(muT.kMuNeutralHadronIsoDR0p4To0p5,
526	>	mu->Eta(), EffectiveAreaVersion))/mu->Pt()
527	>	, 2.5)
528	>	, 0.0);
529	>
530	>
531	>	double mvaval = muIsoMVA->MVAValue_IsoRings( mu->Pt(),
532	>	mu->Eta(),
533	>	mu->IsGlobalMuon(),
534	>	mu->IsTrackerMuon(),
535	>	fChargedIso_DR0p0To0p1,
536	>	fChargedIso_DR0p1To0p2,
537	>	fChargedIso_DR0p2To0p3,
538	>	fChargedIso_DR0p3To0p4,
539	>	fChargedIso_DR0p4To0p5,
540	>	fGammaIso_DR0p0To0p1,
541	>	fGammaIso_DR0p1To0p2,
542	>	fGammaIso_DR0p2To0p3,
543	>	fGammaIso_DR0p3To0p4,
544	>	fGammaIso_DR0p4To0p5,
545	>	fNeutralHadronIso_DR0p0To0p1,
546	>	fNeutralHadronIso_DR0p1To0p2,
547	>	fNeutralHadronIso_DR0p2To0p3,
548	>	fNeutralHadronIso_DR0p3To0p4,
549	>	fNeutralHadronIso_DR0p4To0p5,
550	>	ctrl.debug);
551	>
552	>	SelectionStatus status;
553	>	bool pass;
554	>
555	>	pass = false;
556	>	if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
557	>	&& fabs(mu->Eta()) <= 1.5 && mu->Pt() <= 10 && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_OPT_BIN0)   pass = true;
558	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
559	>	&& fabs(mu->Eta()) <= 1.5 && mu->Pt() > 10 && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_OPT_BIN1)  pass = true;
560	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
561	>	&& fabs(mu->Eta()) > 1.5 && mu->Pt() <= 10 && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_OPT_BIN2)  pass = true;
562	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
563	>	&& fabs(mu->Eta()) > 1.5 && mu->Pt() > 10 && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_OPT_BIN3)  pass = true;
564	>	else if( !(mu->IsGlobalMuon()) && mu->IsTrackerMuon() && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_OPT_BIN4)  pass = true;
565	>	else if( mu->IsGlobalMuon() && !(mu->IsTrackerMuon()) && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_OPT_BIN5)  pass = true;
566	>	if( pass ) status.orStatus(SelectionStatus::LOOSEISO);
567	>
568	>	/*
569	>	pass = false;
570	>	if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
571	>	&& fabs(mu->Eta()) <= 1.5 && mu->Pt() <= 10 && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN0)   pass = true;
572	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
573	>	&& fabs(mu->Eta()) <= 1.5 && mu->Pt() > 10 && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN1)  pass = true;
574	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
575	>	&& fabs(mu->Eta()) > 1.5 && mu->Pt() <= 10 && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN2)  pass = true;
576	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
577	>	&& fabs(mu->Eta()) > 1.5 && mu->Pt() > 10 && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN3)  pass = true;
578	>	else if( !(mu->IsGlobalMuon()) && mu->IsTrackerMuon() && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN4)  pass = true;
579	>	else if( mu->IsGlobalMuon() && !(mu->IsTrackerMuon()) && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN5)  pass = true;
580	>	if( pass ) status.orStatus(SelectionStatus::TIGHTISO);
581	>	*/
582	>
583	>	//  pass &= (fChargedIso_DR0p0To0p1 + fChargedIso_DR0p1To0p2 + fChargedIso_DR0p2To0p3 < 0.7);
584	>
585	>	status.isoMVA = mvaval;
586	>
587	>	if(ctrl.debug)  {
588	>	cout << "returning status : " << hex << status.getStatus() << dec << endl;
589	>	cout << "MVAVAL : " << status.isoMVA << endl;
590	>	}
591	>	return status;
592	>
593	>	}
594	>
595	>
596	>	//--------------------------------------------------------------------------------------------------
597	>	SelectionStatus muonIsoMVASelection(ControlFlags &ctrl,
598	>	const mithep::Muon * mu,
599	>	const mithep::Vertex * vtx,
600	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
601	>	float rho,
602	>	//const mithep::Array<mithep::PileupEnergyDensity> * fPUEnergyDensity,
603	>	mithep::MuonTools::EMuonEffectiveAreaTarget EffectiveAreaVersion,
604	>	vector<const mithep::Muon*> muonsToVeto,
605	>	vector<const mithep::Electron*> electronsToVeto)
606	>	//--------------------------------------------------------------------------------------------------
607	>	// hacked version
608	>	{
609	>
610	>	if( ctrl.debug ) {
611	>	cout << "muonIsoMVASelection :: muons to veto " << endl;
612	>	for( int i=0; i<muonsToVeto.size(); i++ ) {
613	>	const mithep::Muon * vmu = muonsToVeto[i];
614	>	cout << "\tpt: " << vmu->Pt()
615	>	<< "\teta: " << vmu->Eta()
616	>	<< "\tphi: " << vmu->Phi()
617	>	<< endl;
618	>	}
619	>	cout << "muonIsoMVASelection :: electrson to veto " << endl;
620	>	for( int i=0; i<electronsToVeto.size(); i++ ) {
621	>	const mithep::Electron * vel = electronsToVeto[i];
622	>	cout << "\tpt: " << vel->Pt()
623	>	<< "\teta: " << vel->Eta()
624	>	<< "\tphi: " << vel->Phi()
625	>	<< endl;
626	>	}
627	>	}
628	>	bool failiso=false;
629	>
630	>	//
631	>	// tmp iso rings
632	>	//
633	>	Double_t tmpChargedIso_DR0p0To0p1  = 0;
634	>	Double_t tmpChargedIso_DR0p1To0p2  = 0;
635	>	Double_t tmpChargedIso_DR0p2To0p3  = 0;
636	>	Double_t tmpChargedIso_DR0p3To0p4  = 0;
637	>	Double_t tmpChargedIso_DR0p4To0p5  = 0;
638	>	Double_t tmpChargedIso_DR0p5To0p7  = 0;
639	>
640	>	Double_t tmpGammaIso_DR0p0To0p1  = 0;
641	>	Double_t tmpGammaIso_DR0p1To0p2  = 0;
642	>	Double_t tmpGammaIso_DR0p2To0p3  = 0;
643	>	Double_t tmpGammaIso_DR0p3To0p4  = 0;
644	>	Double_t tmpGammaIso_DR0p4To0p5  = 0;
645	>	Double_t tmpGammaIso_DR0p5To0p7  = 0;
646	>
647	>	Double_t tmpNeutralHadronIso_DR0p0To0p1  = 0;
648	>	Double_t tmpNeutralHadronIso_DR0p1To0p2  = 0;
649	>	Double_t tmpNeutralHadronIso_DR0p2To0p3  = 0;
650	>	Double_t tmpNeutralHadronIso_DR0p3To0p4  = 0;
651	>	Double_t tmpNeutralHadronIso_DR0p4To0p5  = 0;
652	>	Double_t tmpNeutralHadronIso_DR0p5To0p7  = 0;
653	>
654	>
655	>
656	>	//
657	>	// final rings for the MVA
658	>	//
659	>	Double_t fChargedIso_DR0p0To0p1;
660	>	Double_t fChargedIso_DR0p1To0p2;
661	>	Double_t fChargedIso_DR0p2To0p3;
662	>	Double_t fChargedIso_DR0p3To0p4;
663	>	Double_t fChargedIso_DR0p4To0p5;
664	>	Double_t fChargedIso_DR0p5To0p7;
665	>
666	>	Double_t fGammaIso_DR0p0To0p1;
667	>	Double_t fGammaIso_DR0p1To0p2;
668	>	Double_t fGammaIso_DR0p2To0p3;
669	>	Double_t fGammaIso_DR0p3To0p4;
670	>	Double_t fGammaIso_DR0p4To0p5;
671	>	Double_t fGammaIso_DR0p5To0p7;
672	>
673	>	Double_t fNeutralHadronIso_DR0p0To0p1;
674	>	Double_t fNeutralHadronIso_DR0p1To0p2;
675	>	Double_t fNeutralHadronIso_DR0p2To0p3;
676	>	Double_t fNeutralHadronIso_DR0p3To0p4;
677	>	Double_t fNeutralHadronIso_DR0p4To0p5;
678	>	Double_t fNeutralHadronIso_DR0p5To0p7;
679	>
680	>
681	>	//
682	>	//Loop over PF Candidates
683	>	//
684	>	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
685	>
686	>	if( !(PFnoPUflag[k]) ) continue; // my PF no PU hack
687	>
688	>	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
689	>
690	>	Double_t deta = (mu->Eta() - pf->Eta());
691	>	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(mu->Phi()),Double_t(pf->Phi()));
692	>	Double_t dr = mithep::MathUtils::DeltaR(mu->Phi(),mu->Eta(), pf->Phi(), pf->Eta());
693	>	if (dr > 1.0) continue;
694	>
695	>	if (pf->HasTrackerTrk() && (pf->TrackerTrk() == mu->TrackerTrk()) ) continue;
696	>
697	>	//
698	>	// Lepton Footprint Removal
699	>	//
700	>	Bool_t IsLeptonFootprint = kFALSE;
701	>	if (dr < 1.0) {
702	>
703	>	//
704	>	// Check for electrons
705	>	//
706	>	for (Int_t q=0; q < electronsToVeto.size(); ++q) {
707	>	const mithep::Electron *tmpele = electronsToVeto[q];
708	>	// 4l electron
709	>	if( pf->HasTrackerTrk() ) {
710	>	if( pf->TrackerTrk() == tmpele->TrackerTrk() )
711	>	IsLeptonFootprint = kTRUE;
712	>	}
713	>	if( pf->HasGsfTrk() ) {
714	>	if( pf->GsfTrk() == tmpele->GsfTrk() )
715	>	IsLeptonFootprint = kTRUE;
716	>	}
717	>	// PF charged
718	>	if (pf->Charge() != 0 && fabs(tmpele->SCluster()->Eta()) >= 1.479
719	>	&& mithep::MathUtils::DeltaR(tmpele->Phi(),tmpele->Eta(), pf->Phi(), pf->Eta()) < 0.015)
720	>	IsLeptonFootprint = kTRUE;
721	>	// PF gamma
722	>	if (abs(pf->PFType()) == PFCandidate::eGamma && fabs(tmpele->SCluster()->Eta()) >= 1.479
723	>	&& mithep::MathUtils::DeltaR(tmpele->Phi(),tmpele->Eta(), pf->Phi(), pf->Eta()) < 0.08)
724	>	IsLeptonFootprint = kTRUE;
725	>	} // loop over electrons
726	>
727	>	/* KH - commented for sync
728	>	//
729	>	// Check for muons
730	>	//
731	>	for (Int_t q=0; q < muonsToVeto.size(); ++q) {
732	>	const mithep::Muon *tmpmu = muonsToVeto[q];
733	>	// 4l muon
734	>	if( pf->HasTrackerTrk() ) {
735	>	if( pf->TrackerTrk() == tmpmu->TrackerTrk() )
736	>	IsLeptonFootprint = kTRUE;
737	>	}
738	>	// PF charged
739	>	if (pf->Charge() != 0 && mithep::MathUtils::DeltaR(tmpmu->Phi(),tmpmu->Eta(), pf->Phi(), pf->Eta()) < 0.01)
740	>	IsLeptonFootprint = kTRUE;
741	>	} // loop over muons
742	>	*/
743	>
744	>	if (IsLeptonFootprint)
745	>	continue;
746	>
747	>	//
748	>	// Charged Iso Rings
749	>	//
750	>	if (pf->Charge() != 0 && (pf->HasTrackerTrk()||pf->HasGsfTrk()) ) {
751	>
752	>	if( dr < 0.01 ) continue; // only for muon iso mva?
753	>	if (abs(pf->PFType()) == PFCandidate::eElectron || abs(pf->PFType()) == PFCandidate::eMuon) continue;
754	>
755	>	//       if( pf->HasTrackerTrk() ) {
756	>	//      if (abs(pf->TrackerTrk()->DzCorrected(vtx)) > 0.2) continue;
757	>	//      if( ctrl.debug ) cout << "charged:: " << pf->PFType() << " " << pf->Pt() << " "
758	>	//                            << abs(pf->TrackerTrk()->DzCorrected(vtx)) << " "
759	>	//                            << dr << endl;
760	>	//       }
761	>	//       if( pf->HasGsfTrk() ) {
762	>	//      if (abs(pf->GsfTrk()->DzCorrected(vtx)) > 0.2) continue;
763	>	//      if( ctrl.debug ) cout << "charged:: " << pf->PFType() << " " << pf->Pt() << " "
764	>	//                            << abs(pf->GsfTrk()->DzCorrected(vtx)) << " "
765	>	//                            << dr << endl;
766	>	//       }
767	>
768	>	// Footprint Veto
769	>	if (dr < 0.1) tmpChargedIso_DR0p0To0p1 += pf->Pt();
770	>	if (dr >= 0.1 && dr < 0.2) tmpChargedIso_DR0p1To0p2 += pf->Pt();
771	>	if (dr >= 0.2 && dr < 0.3) tmpChargedIso_DR0p2To0p3 += pf->Pt();
772	>	if (dr >= 0.3 && dr < 0.4) tmpChargedIso_DR0p3To0p4 += pf->Pt();
773	>	if (dr >= 0.4 && dr < 0.5) tmpChargedIso_DR0p4To0p5 += pf->Pt();
774	>	if (dr >= 0.5 && dr < 0.7) tmpChargedIso_DR0p5To0p7 += pf->Pt();
775	>	}
776	>
777	>	//
778	>	// Gamma Iso Rings
779	>	//
780	>	else if (abs(pf->PFType()) == PFCandidate::eGamma) {
781	>	if (dr < 0.1) tmpGammaIso_DR0p0To0p1 += pf->Pt();
782	>	if (dr >= 0.1 && dr < 0.2) tmpGammaIso_DR0p1To0p2 += pf->Pt();
783	>	if (dr >= 0.2 && dr < 0.3) tmpGammaIso_DR0p2To0p3 += pf->Pt();
784	>	if (dr >= 0.3 && dr < 0.4) tmpGammaIso_DR0p3To0p4 += pf->Pt();
785	>	if (dr >= 0.4 && dr < 0.5) tmpGammaIso_DR0p4To0p5 += pf->Pt();
786	>	if (dr >= 0.5 && dr < 0.7) tmpGammaIso_DR0p5To0p7 += pf->Pt();
787	>	}
788	>
789	>	//
790	>	// Other Neutral Iso Rings
791	>	//
792	>	else {
793	>	if (dr < 0.1) tmpNeutralHadronIso_DR0p0To0p1 += pf->Pt();
794	>	if (dr >= 0.1 && dr < 0.2) tmpNeutralHadronIso_DR0p1To0p2 += pf->Pt();
795	>	if (dr >= 0.2 && dr < 0.3) tmpNeutralHadronIso_DR0p2To0p3 += pf->Pt();
796	>	if (dr >= 0.3 && dr < 0.4) tmpNeutralHadronIso_DR0p3To0p4 += pf->Pt();
797	>	if (dr >= 0.4 && dr < 0.5) tmpNeutralHadronIso_DR0p4To0p5 += pf->Pt();
798	>	if (dr >= 0.5 && dr < 0.7) tmpNeutralHadronIso_DR0p5To0p7 += pf->Pt();
799	>	}
800	>
801	>	}
802	>
803	>	}
804	>
805	>	fChargedIso_DR0p0To0p1   = fmin((tmpChargedIso_DR0p0To0p1)/mu->Pt(), 2.5);
806	>	fChargedIso_DR0p1To0p2   = fmin((tmpChargedIso_DR0p1To0p2)/mu->Pt(), 2.5);
807	>	fChargedIso_DR0p2To0p3   = fmin((tmpChargedIso_DR0p2To0p3)/mu->Pt(), 2.5);
808	>	fChargedIso_DR0p3To0p4   = fmin((tmpChargedIso_DR0p3To0p4)/mu->Pt(), 2.5);
809	>	fChargedIso_DR0p4To0p5   = fmin((tmpChargedIso_DR0p4To0p5)/mu->Pt(), 2.5);
810	>
811	>
812	>	//   double rho = 0;
813	>	//   if (!(isnan(fPUEnergyDensity->At(0)->Rho()) || isinf(fPUEnergyDensity->At(0)->Rho())))
814	>	//     rho = fPUEnergyDensity->At(0)->Rho();
815	>	//   if (!(isnan(fPUEnergyDensity->At(0)->RhoLowEta()) || isinf(fPUEnergyDensity->At(0)->RhoLowEta())))
816	>	//     rho = fPUEnergyDensity->At(0)->RhoLowEta();
817	>
818	>	// WARNING!!!!
819	>	// hardcode for sync ...
820	>	EffectiveAreaVersion = muT.kMuEAData2011;
821	>	// WARNING!!!!
822	>
823	>
824	>	fGammaIso_DR0p0To0p1 = fmax(fmin((tmpGammaIso_DR0p0To0p1
825	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaIsoDR0p0To0p1,mu->Eta(),EffectiveAreaVersion))/mu->Pt()
826	>	,2.5)
827	>	,0.0);
828	>	fGammaIso_DR0p1To0p2 = fmax(fmin((tmpGammaIso_DR0p1To0p2
829	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaIsoDR0p1To0p2,mu->Eta(),EffectiveAreaVersion))/mu->Pt()
830	>	,2.5)
831	>	,0.0);
832	>	fGammaIso_DR0p2To0p3 = fmax(fmin((tmpGammaIso_DR0p2To0p3
833	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaIsoDR0p2To0p3,mu->Eta(),EffectiveAreaVersion))/mu->Pt()
834	>	,2.5)
835	>	,0.0);
836	>	fGammaIso_DR0p3To0p4 = fmax(fmin((tmpGammaIso_DR0p3To0p4
837	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaIsoDR0p3To0p4,mu->Eta(),EffectiveAreaVersion))/mu->Pt()
838	>	,2.5)
839	>	,0.0);
840	>	fGammaIso_DR0p4To0p5 = fmax(fmin((tmpGammaIso_DR0p4To0p5
841	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaIsoDR0p4To0p5,mu->Eta(),EffectiveAreaVersion))/mu->Pt()
842	>	,2.5)
843	>	,0.0);
844	>
845	>
846	>
847	>	fNeutralHadronIso_DR0p0To0p1 = fmax(fmin((tmpNeutralHadronIso_DR0p0To0p1
848	>	-rho*muT.MuonEffectiveArea(muT.kMuNeutralHadronIsoDR0p0To0p1,
849	>	mu->Eta(),EffectiveAreaVersion))/mu->Pt()
850	>	, 2.5)
851	>	, 0.0);
852	>	fNeutralHadronIso_DR0p1To0p2 = fmax(fmin((tmpNeutralHadronIso_DR0p1To0p2
853	>	-rho*muT.MuonEffectiveArea(muT.kMuNeutralHadronIsoDR0p1To0p2,
854	>	mu->Eta(),EffectiveAreaVersion))/mu->Pt()
855	>	, 2.5)
856	>	, 0.0);
857	>	fNeutralHadronIso_DR0p2To0p3 = fmax(fmin((tmpNeutralHadronIso_DR0p2To0p3
858	>	-rho*muT.MuonEffectiveArea(muT.kMuNeutralHadronIsoDR0p2To0p3,
859	>	mu->Eta(),EffectiveAreaVersion))/mu->Pt()
860	>	, 2.5)
861	>	, 0.0);
862	>	fNeutralHadronIso_DR0p3To0p4 = fmax(fmin((tmpNeutralHadronIso_DR0p3To0p4
863	>	-rho*muT.MuonEffectiveArea(muT.kMuNeutralHadronIsoDR0p3To0p4,
864	>	mu->Eta(), EffectiveAreaVersion))/mu->Pt()
865	>	, 2.5)
866	>	, 0.0);
867	>	fNeutralHadronIso_DR0p4To0p5 = fmax(fmin((tmpNeutralHadronIso_DR0p4To0p5
868	>	-rho*muT.MuonEffectiveArea(muT.kMuNeutralHadronIsoDR0p4To0p5,
869	>	mu->Eta(), EffectiveAreaVersion))/mu->Pt()
870	>	, 2.5)
871	>	, 0.0);
872	>
873	>
874	>	double mvaval = muIsoMVA->MVAValue_IsoRings( mu->Pt(),
875	>	mu->Eta(),
876	>	mu->IsGlobalMuon(),
877	>	mu->IsTrackerMuon(),
878	>	fChargedIso_DR0p0To0p1,
879	>	fChargedIso_DR0p1To0p2,
880	>	fChargedIso_DR0p2To0p3,
881	>	fChargedIso_DR0p3To0p4,
882	>	fChargedIso_DR0p4To0p5,
883	>	fGammaIso_DR0p0To0p1,
884	>	fGammaIso_DR0p1To0p2,
885	>	fGammaIso_DR0p2To0p3,
886	>	fGammaIso_DR0p3To0p4,
887	>	fGammaIso_DR0p4To0p5,
888	>	fNeutralHadronIso_DR0p0To0p1,
889	>	fNeutralHadronIso_DR0p1To0p2,
890	>	fNeutralHadronIso_DR0p2To0p3,
891	>	fNeutralHadronIso_DR0p3To0p4,
892	>	fNeutralHadronIso_DR0p4To0p5,
893	>	ctrl.debug);
894	>
895	>	SelectionStatus status;
896	>	bool pass;
897	>
898	>	pass = false;
899	>	if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
900	>	&& fabs(mu->Eta()) <= 1.5 && mu->Pt() <= 10 && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_BIN0)   pass = true;
901	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
902	>	&& fabs(mu->Eta()) <= 1.5 && mu->Pt() > 10 && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_BIN1)  pass = true;
903	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
904	>	&& fabs(mu->Eta()) > 1.5 && mu->Pt() <= 10 && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_BIN2)  pass = true;
905	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
906	>	&& fabs(mu->Eta()) > 1.5 && mu->Pt() > 10 && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_BIN3)  pass = true;
907	>	else if( !(mu->IsGlobalMuon()) && mu->IsTrackerMuon() && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_BIN4)  pass = true;
908	>	else if( mu->IsGlobalMuon() && !(mu->IsTrackerMuon()) && mvaval >= MUON_ISOMVA_LOOSE_FORPFID_CUT_BIN5)  pass = true;
909	>	if( pass ) status.orStatus(SelectionStatus::LOOSEISO);
910	>
911	>	/*
912	>	pass = false;
913	>	if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
914	>	&& fabs(mu->Eta()) <= 1.5 && mu->Pt() <= 10 && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN0)   pass = true;
915	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
916	>	&& fabs(mu->Eta()) <= 1.5 && mu->Pt() > 10 && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN1)  pass = true;
917	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
918	>	&& fabs(mu->Eta()) > 1.5 && mu->Pt() <= 10 && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN2)  pass = true;
919	>	else if( mu->IsGlobalMuon() && mu->IsTrackerMuon()
920	>	&& fabs(mu->Eta()) > 1.5 && mu->Pt() > 10 && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN3)  pass = true;
921	>	else if( !(mu->IsGlobalMuon()) && mu->IsTrackerMuon() && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN4)  pass = true;
922	>	else if( mu->IsGlobalMuon() && !(mu->IsTrackerMuon()) && mvaval >= MUON_ISOMVA_TIGHT_FORPFID_CUT_BIN5)  pass = true;
923	>	if( pass ) status.orStatus(SelectionStatus::TIGHTISO);
924	>	*/
925	>
926	>	//  pass &= (fChargedIso_DR0p0To0p1 + fChargedIso_DR0p1To0p2 + fChargedIso_DR0p2To0p3 < 0.7);
927	>
928	>	status.isoMVA = mvaval;
929	>
930	>	if(ctrl.debug)  {
931	>	cout << "returning status : " << hex << status.getStatus() << dec << endl;
932	>	cout << "MVAVAL : " << status.isoMVA << endl;
933	>	}
934	>	return status;
935	>
936	>	}
937	>
938	>
939	>	//--------------------------------------------------------------------------------------------------
940	>	void initMuonIsoMVA() {
941	>	//--------------------------------------------------------------------------------------------------
942	>	muIsoMVA = new mithep::MuonIDMVA();
943	>	vector<string> weightFiles;
944	>	weightFiles.push_back("./data/MuonIsoMVAWeights/MuonIsoMVA_BDTG_V0_barrel_lowpt.weights.xml");
945	>	weightFiles.push_back("./data/MuonIsoMVAWeights/MuonIsoMVA_BDTG_V0_barrel_highpt.weights.xml");
946	>	weightFiles.push_back("./data/MuonIsoMVAWeights/MuonIsoMVA_BDTG_V0_endcap_lowpt.weights.xml");
947	>	weightFiles.push_back("./data/MuonIsoMVAWeights/MuonIsoMVA_BDTG_V0_endcap_highpt.weights.xml");
948	>	weightFiles.push_back("./data/MuonIsoMVAWeights/MuonIsoMVA_BDTG_V0_tracker.weights.xml");
949	>	weightFiles.push_back("./data/MuonIsoMVAWeights/MuonIsoMVA_BDTG_V0_global.weights.xml");
950	>	muIsoMVA->Initialize( "MuonIsoMVA",
951	>	mithep::MuonIDMVA::kIsoRingsV0,
952	>	kTRUE, weightFiles);
953	>	}
954	>
955	>
956	>
957	>
958	>	//--------------------------------------------------------------------------------------------------
959	>	double  muonPFIso04(ControlFlags &ctrl,
960	>	const mithep::Muon * mu,
961	>	const mithep::Vertex * vtx,
962	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
963	>	const mithep::Array<mithep::PileupEnergyDensity> * fPUEnergyDensity,
964	>	mithep::MuonTools::EMuonEffectiveAreaTarget EffectiveAreaVersion,
965	>	vector<const mithep::PFCandidate*> photonsToVeto)
966	>	//--------------------------------------------------------------------------------------------------
967	>	{
968	>
969	>	extern double gChargedIso;
970	>	extern double  gGammaIso;
971	>	extern double  gNeutralIso;
972	>
973	>	//
974	>	// final iso
975	>	//
976	>	Double_t fChargedIso  = 0.0;
977	>	Double_t fGammaIso  = 0.0;
978	>	Double_t fNeutralHadronIso  = 0.0;
979	>
980	>	//
981	>	//Loop over PF Candidates
982	>	//
983	>	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
984	>
985	>	if( !(PFnoPUflag[k]) ) continue; // my PF no PU hack
986	>	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
987	>
988	>	//
989	>	// veto FSR recovered photons
990	>	//
991	>	bool vetoPhoton = false;
992	>	for( int p=0; p<photonsToVeto.size(); p++ ) {
993	>	if( pf == photonsToVeto[p] ) {
994	>	vetoPhoton = true;
995	>	break;
996	>	}
997	>	} if( vetoPhoton ) continue;
998	>	//
999	>	//
1000	>	//
1001	>
1002	>	Double_t deta = (mu->Eta() - pf->Eta());
1003	>	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(mu->Phi()),Double_t(pf->Phi()));
1004	>	Double_t dr = mithep::MathUtils::DeltaR(mu->Phi(),mu->Eta(), pf->Phi(), pf->Eta());
1005	>	if (dr > 0.4) continue;
1006	>
1007	>	if (pf->HasTrackerTrk() && (pf->TrackerTrk() == mu->TrackerTrk()) ) continue;
1008	>
1009	>	//
1010	>	// Charged Iso
1011	>	//
1012	>	if (pf->Charge() != 0 && (pf->HasTrackerTrk()||pf->HasGsfTrk()) ) {
1013	>
1014	>	//if( dr < 0.01 ) continue; // only for muon iso mva?
1015	>	if (abs(pf->PFType()) == PFCandidate::eElectron || abs(pf->PFType()) == PFCandidate::eMuon) continue;
1016	>	fChargedIso += pf->Pt();
1017	>	}
1018	>
1019	>	//
1020	>	// Gamma Iso
1021	>	//
1022	>	else if (abs(pf->PFType()) == PFCandidate::eGamma) {
1023	>	// KH, add to sync
1024	>	if( pf->Pt() > 0.5 )
1025	>	fGammaIso += pf->Pt();
1026	>	}
1027	>
1028	>	//
1029	>	// Other Neutrals
1030	>	//
1031	>	else {
1032	>	if( pf->Pt() > 0.5 )
1033	>	fNeutralHadronIso += pf->Pt();
1034	>	}
1035	>	}
1036	>
1037	>	double rho=0;
1038	>	if( (EffectiveAreaVersion == mithep::MuonTools::kMuEAFall11MC) ||
1039	>	(EffectiveAreaVersion == mithep::MuonTools::kMuEAData2011) ) {
1040	>	if (!(isnan(fPUEnergyDensity->At(0)->RhoKt6PFJetsForIso25()) ||
1041	>	isinf(fPUEnergyDensity->At(0)->RhoKt6PFJetsForIso25())))
1042	>	rho = fPUEnergyDensity->At(0)->RhoKt6PFJetsForIso25();
1043	>	//rho = fPUEnergyDensity->At(0)->Rho();
1044	>	// !!!!!!!!!!!!! TMP HACK FOR SYNC !!!!!!!!!!!!!!!!!!!!!
1045	>	EffectiveAreaVersion  = mithep::MuonTools::kMuEAData2011;
1046	>	// !!!!!!!!!!!!! TMP HACK FOR SYNC !!!!!!!!!!!!!!!!!!!!!
1047	>	} else {
1048	>	if (!(isnan(fPUEnergyDensity->At(0)->RhoKt6PFJetsCentralNeutral()) ||
1049	>	isinf(fPUEnergyDensity->At(0)->RhoKt6PFJetsCentralNeutral())))
1050	>	rho = fPUEnergyDensity->At(0)->RhoKt6PFJetsCentralNeutral();
1051	>	// !!!!!!!!!!!!! TMP HACK FOR SYNC !!!!!!!!!!!!!!!!!!!!!
1052	>	EffectiveAreaVersion  = mithep::MuonTools::kMuEAData2012;
1053	>	// !!!!!!!!!!!!! TMP HACK FOR SYNC !!!!!!!!!!!!!!!!!!!!!
1054	>	}
1055	>	if(ctrl.debug) cout << "rho: " << rho << endl;
1056	>
1057	>	TLorentzVector  tmpvec;
1058	>	tmpvec.SetPtEtaPhiM(mu->Pt(),mu->Eta(),mu->Phi(),mu->Mass());
1059	>	for( int p=0; p<photonsToVeto.size(); p++ ) {
1060	>	const mithep::PFCandidate * pf  = photonsToVeto[p];
1061	>	TLorentzVector pfvec;
1062	>	pfvec.SetPtEtaPhiM(pf->Pt(),pf->Eta(),pf->Phi(),0.);
1063	>	tmpvec += pfvec;
1064	>	}
1065	>
1066	>	double pfIso = fChargedIso + fmax(0.0,(fGammaIso + fNeutralHadronIso
1067	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaAndNeutralHadronIso04,
1068	>	//tmpvec.Eta(),EffectiveAreaVersion)));
1069	>	mu->Eta(),EffectiveAreaVersion)));
1070	>	gChargedIso = fChargedIso;
1071	>	gGammaIso   = fGammaIso;
1072	>	gNeutralIso = fNeutralHadronIso;
1073	>
1074	>	if( ctrl.debug ) {
1075	>	cout << "PFiso: " << pfIso
1076	>	<< "\tfChargedIso: " << fChargedIso
1077	>	<< "\tfGammaIso: " << fGammaIso
1078	>	<< "\tfNeutralHadronIso: " << fNeutralHadronIso
1079	>	<< endl;
1080	>	}
1081	>
1082	>	return pfIso;
1083	>	}
1084	>
1085	>
1086	>
1087	>
1088	>	//--------------------------------------------------------------------------------------------------
1089	>	// hacked version
1090	>	double  muonPFIso04(ControlFlags &ctrl,
1091	>	const mithep::Muon * mu,
1092	>	const mithep::Vertex * vtx,
1093	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
1094	>	float rho,
1095	>	mithep::MuonTools::EMuonEffectiveAreaTarget EffectiveAreaVersion,
1096	>	vector<const mithep::Muon*> muonsToVeto,
1097	>	vector<const mithep::Electron*> electronsToVeto)
1098	>	//--------------------------------------------------------------------------------------------------
1099	>	{
1100	>
1101	>	extern double gChargedIso;
1102	>	extern double  gGammaIso;
1103	>	extern double  gNeutralIso;
1104	>
1105	>	if( ctrl.debug ) {
1106	>	cout << "muonIsoMVASelection :: muons to veto " << endl;
1107	>	for( int i=0; i<muonsToVeto.size(); i++ ) {
1108	>	const mithep::Muon * vmu = muonsToVeto[i];
1109	>	cout << "\tpt: " << vmu->Pt()
1110	>	<< "\teta: " << vmu->Eta()
1111	>	<< "\tphi: " << vmu->Phi()
1112	>	<< endl;
1113	>	}
1114	>	cout << "muonIsoMVASelection :: electrson to veto " << endl;
1115	>	for( int i=0; i<electronsToVeto.size(); i++ ) {
1116	>	const mithep::Electron * vel = electronsToVeto[i];
1117	>	cout << "\tpt: " << vel->Pt()
1118	>	<< "\teta: " << vel->Eta()
1119	>	<< "\tphi: " << vel->Phi()
1120	>	<< endl;
1121	>	}
1122	>	}
1123	>
1124	>	//
1125	>	// final iso
1126	>	//
1127	>	Double_t fChargedIso  = 0.0;
1128	>	Double_t fGammaIso  = 0.0;
1129	>	Double_t fNeutralHadronIso  = 0.0;
1130	>
1131	>	//
1132	>	//Loop over PF Candidates
1133	>	//
1134	>	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
1135	>
1136	>	if( !(PFnoPUflag[k]) ) continue; // my PF no PU hack
1137	>	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
1138	>
1139	>	Double_t deta = (mu->Eta() - pf->Eta());
1140	>	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(mu->Phi()),Double_t(pf->Phi()));
1141	>	Double_t dr = mithep::MathUtils::DeltaR(mu->Phi(),mu->Eta(), pf->Phi(), pf->Eta());
1142	>	if (dr > 0.4) continue;
1143	>
1144	>	if (pf->HasTrackerTrk() && (pf->TrackerTrk() == mu->TrackerTrk()) ) continue;
1145	>
1146	>	//
1147	>	// Lepton Footprint Removal
1148	>	//
1149	>	Bool_t IsLeptonFootprint = kFALSE;
1150	>	if (dr < 1.0) {
1151	>
1152	>	//
1153	>	// Check for electrons
1154	>	//
1155	>	for (Int_t q=0; q < electronsToVeto.size(); ++q) {
1156	>	const mithep::Electron *tmpele = electronsToVeto[q];
1157	>	// 4l electron
1158	>	if( pf->HasTrackerTrk() ) {
1159	>	if( pf->TrackerTrk() == tmpele->TrackerTrk() )
1160	>	IsLeptonFootprint = kTRUE;
1161	>	}
1162	>	if( pf->HasGsfTrk() ) {
1163	>	if( pf->GsfTrk() == tmpele->GsfTrk() )
1164	>	IsLeptonFootprint = kTRUE;
1165	>	}
1166	>	// PF charged
1167	>	if (pf->Charge() != 0 && fabs(tmpele->SCluster()->Eta()) > 1.479
1168	>	&& mithep::MathUtils::DeltaR(tmpele->Phi(),tmpele->Eta(), pf->Phi(), pf->Eta()) < 0.015)
1169	>	IsLeptonFootprint = kTRUE;
1170	>	// PF gamma
1171	>	if (abs(pf->PFType()) == PFCandidate::eGamma && fabs(tmpele->SCluster()->Eta()) > 1.479
1172	>	&& mithep::MathUtils::DeltaR(tmpele->Phi(),tmpele->Eta(), pf->Phi(), pf->Eta()) < 0.08)
1173	>	IsLeptonFootprint = kTRUE;
1174	>	} // loop over electrons
1175	>
1176	>	/* KH - comment for sync
1177	>	//
1178	>	// Check for muons
1179	>	//
1180	>	for (Int_t q=0; q < muonsToVeto.size(); ++q) {
1181	>	const mithep::Muon *tmpmu = muonsToVeto[q];
1182	>	// 4l muon
1183	>	if( pf->HasTrackerTrk() ) {
1184	>	if( pf->TrackerTrk() == tmpmu->TrackerTrk() )
1185	>	IsLeptonFootprint = kTRUE;
1186	>	}
1187	>	// PF charged
1188	>	if (pf->Charge() != 0 && mithep::MathUtils::DeltaR(tmpmu->Phi(),tmpmu->Eta(), pf->Phi(), pf->Eta()) < 0.01)
1189	>	IsLeptonFootprint = kTRUE;
1190	>	} // loop over muons
1191	>	*/
1192	>
1193	>	if (IsLeptonFootprint)
1194	>	continue;
1195	>
1196	>	//
1197	>	// Charged Iso
1198	>	//
1199	>	if (pf->Charge() != 0 && (pf->HasTrackerTrk()||pf->HasGsfTrk()) ) {
1200	>
1201	>	//if( dr < 0.01 ) continue; // only for muon iso mva?
1202	>	if (abs(pf->PFType()) == PFCandidate::eElectron || abs(pf->PFType()) == PFCandidate::eMuon) continue;
1203	>
1204	>
1205	>	//       if( pf->HasTrackerTrk() ) {
1206	>	//      if (abs(pf->TrackerTrk()->DzCorrected(vtx)) > 0.2) continue;
1207	>	//      if( ctrl.debug ) cout << "charged:: " << pf->PFType() << " " << pf->Pt() << " "
1208	>	//                            << abs(pf->TrackerTrk()->DzCorrected(vtx)) << " "
1209	>	//                            << dr << endl;
1210	>	//       }
1211	>	//       if( pf->HasGsfTrk() ) {
1212	>	//      if (abs(pf->GsfTrk()->DzCorrected(vtx)) > 0.2) continue;
1213	>	//      if( ctrl.debug ) cout << "charged:: " << pf->PFType() << " " << pf->Pt() << " "
1214	>	//                            << abs(pf->GsfTrk()->DzCorrected(vtx)) << " "
1215	>	//                            << dr << endl;
1216	>	//       }
1217	>
1218	>
1219	>	fChargedIso += pf->Pt();
1220	>	}
1221	>
1222	>	//
1223	>	// Gamma Iso
1224	>	//
1225	>	else if (abs(pf->PFType()) == PFCandidate::eGamma) {
1226	>	// KH, add to sync
1227	>	if( pf->Pt() > 0.5 )
1228	>	fGammaIso += pf->Pt();
1229	>	}
1230	>
1231	>	//
1232	>	// Other Neutrals
1233	>	//
1234	>	else {
1235	>	// KH, add to sync
1236	>	if( pf->Pt() > 0.5 )
1237	>	fNeutralHadronIso += pf->Pt();
1238	>	}
1239	>
1240	>	}
1241	>
1242	>	}
1243	>
1244	>	//   double rho = 0;
1245	>	//   if (!(isnan(fPUEnergyDensity->At(0)->Rho()) || isinf(fPUEnergyDensity->At(0)->Rho())))
1246	>	//     rho = fPUEnergyDensity->At(0)->Rho();
1247	>
1248	>	// WARNING!!!!
1249	>	// hardcode for sync ...
1250	>	EffectiveAreaVersion = muT.kMuEAData2011;
1251	>	// WARNING!!!!
1252	>
1253	>
1254	>	double pfIso = fChargedIso + fmax(0.0,(fGammaIso + fNeutralHadronIso
1255	>	-rho*muT.MuonEffectiveArea(muT.kMuGammaAndNeutralHadronIso04,
1256	>	mu->Eta(),EffectiveAreaVersion)));
1257	>	gChargedIso = fChargedIso;
1258	>	gGammaIso   = fGammaIso;
1259	>	gNeutralIso = fNeutralHadronIso;
1260	>
1261	>	return pfIso;
1262	>	}
1263	>
1264	>
1265	>	//--------------------------------------------------------------------------------------------------
1266	>	SelectionStatus muonReferenceIsoSelection(ControlFlags &ctrl,
1267	>	const mithep::Muon * mu,
1268	>	const mithep::Vertex * vtx,
1269	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
1270	>	const mithep::Array<mithep::PileupEnergyDensity> * fPUEnergyDensity,
1271	>	mithep::MuonTools::EMuonEffectiveAreaTarget EffectiveAreaVersion,
1272	>	vector<const mithep::PFCandidate*> photonsToVeto)
1273	>	//--------------------------------------------------------------------------------------------------
1274	>	{
1275	>
1276	>	SelectionStatus status;
1277	>
1278	>	double pfIso = muonPFIso04( ctrl, mu, vtx, fPFCandidates, fPUEnergyDensity,
1279	>	EffectiveAreaVersion, photonsToVeto);
1280	>	//  cout << "--------------> setting muon isoPF04 to" << pfIso << endl;
1281	>	status.isoPF04 = pfIso;
1282	>	status.chisoPF04 = gChargedIso;
1283	>	status.gaisoPF04 = gGammaIso;
1284	>	status.neisoPF04 = gNeutralIso;
1285	>
1286	>	bool pass = false;
1287	>	if( (pfIso/mu->Pt()) < MUON_REFERENCE_PFISO_CUT ) pass = true;
1288	>
1289	>	if( pass ) {
1290	>	status.orStatus(SelectionStatus::LOOSEISO);
1291	>	status.orStatus(SelectionStatus::TIGHTISO);
1292	>	}
1293	>	if(ctrl.debug) {
1294	>	cout << "mu relpfIso: " << pfIso/mu->Pt() << endl;
1295	>	cout << "returning status : " << hex << status.getStatus() << dec << endl;
1296	>	}
1297	>	return status;
1298	>
1299	>	}
1300	>
1301	>
1302	>	//--------------------------------------------------------------------------------------------------
1303	>	// hacked version
1304	>	SelectionStatus muonReferenceIsoSelection(ControlFlags &ctrl,
1305	>	const mithep::Muon * mu,
1306	>	const mithep::Vertex * vtx,
1307	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
1308	>	float rho,
1309	>	mithep::MuonTools::EMuonEffectiveAreaTarget EffectiveAreaVersion,
1310	>	vector<const mithep::Muon*> muonsToVeto,
1311	>	vector<const mithep::Electron*> electronsToVeto)
1312	>	//--------------------------------------------------------------------------------------------------
1313	>	{
1314	>
1315	>	SelectionStatus status;
1316	>
1317	>	double pfIso = muonPFIso04( ctrl, mu, vtx, fPFCandidates, rho,
1318	>	EffectiveAreaVersion, muonsToVeto ,electronsToVeto );
1319	>
1320	>	status.isoPF04 = pfIso;
1321	>	status.chisoPF04 = gChargedIso;
1322	>	status.gaisoPF04 = gGammaIso;
1323	>	status.neisoPF04 = gNeutralIso;
1324	>
1325	>	bool pass = false;
1326	>	if( (pfIso/mu->Pt()) < MUON_REFERENCE_PFISO_CUT ) pass = true;
1327	>
1328	>	if( pass ) {
1329	>	status.orStatus(SelectionStatus::LOOSEISO);
1330	>	status.orStatus(SelectionStatus::TIGHTISO);
1331	>	}
1332	>	if(ctrl.debug) cout << "returning status : " << hex << status.getStatus() << dec << endl;
1333	>	return status;
1334	>
1335	>	}
1336	>
1337	>
1338	>
1339	>
1340	>	//--------------------------------------------------------------------------------------------------
1341	>	SelectionStatus electronIsoMVASelection(ControlFlags &ctrl,
1342	>	const mithep::Electron * ele,
1343	>	const mithep::Vertex * vtx,
1344	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
1345	>	const mithep::Array<mithep::PileupEnergyDensity> * fPUEnergyDensity,
1346	>	mithep::ElectronTools::EElectronEffectiveAreaTarget EffectiveAreaVersion,
1347	>	vector<const mithep::Muon*> muonsToVeto,
1348	>	vector<const mithep::Electron*> electronsToVeto)
1349	>	//--------------------------------------------------------------------------------------------------
1350	>	{
1351	>
1352	>	if( ctrl.debug ) {
1353	>	cout << "electronIsoMVASelection :: muons to veto " << endl;
1354	>	for( int i=0; i<muonsToVeto.size(); i++ ) {
1355	>	const mithep::Muon * vmu = muonsToVeto[i];
1356	>	cout << "\tpt: " << vmu->Pt()
1357	>	<< "\teta: " << vmu->Eta()
1358	>	<< "\tphi: " << vmu->Phi()
1359	>	<< endl;
1360	>	}
1361	>	cout << "electronIsoMVASelection :: electrson to veto " << endl;
1362	>	for( int i=0; i<electronsToVeto.size(); i++ ) {
1363	>	const mithep::Electron * vel = electronsToVeto[i];
1364	>	cout << "\tpt: " << vel->Pt()
1365	>	<< "\teta: " << vel->Eta()
1366	>	<< "\tphi: " << vel->Phi()
1367	>	<< "\ttrk: " << vel->TrackerTrk()
1368	>	<< endl;
1369	>	}
1370	>	}
1371	>
1372	>	bool failiso=false;
1373	>
1374	>	//
1375	>	// tmp iso rings
1376	>	//
1377	>	Double_t tmpChargedIso_DR0p0To0p1  = 0;
1378	>	Double_t tmpChargedIso_DR0p1To0p2  = 0;
1379	>	Double_t tmpChargedIso_DR0p2To0p3  = 0;
1380	>	Double_t tmpChargedIso_DR0p3To0p4  = 0;
1381	>	Double_t tmpChargedIso_DR0p4To0p5  = 0;
1382	>
1383	>	Double_t tmpGammaIso_DR0p0To0p1  = 0;
1384	>	Double_t tmpGammaIso_DR0p1To0p2  = 0;
1385	>	Double_t tmpGammaIso_DR0p2To0p3  = 0;
1386	>	Double_t tmpGammaIso_DR0p3To0p4  = 0;
1387	>	Double_t tmpGammaIso_DR0p4To0p5  = 0;
1388	>
1389	>
1390	>	Double_t tmpNeutralHadronIso_DR0p0To0p1  = 0;
1391	>	Double_t tmpNeutralHadronIso_DR0p1To0p2  = 0;
1392	>	Double_t tmpNeutralHadronIso_DR0p2To0p3  = 0;
1393	>	Double_t tmpNeutralHadronIso_DR0p3To0p4  = 0;
1394	>	Double_t tmpNeutralHadronIso_DR0p4To0p5  = 0;
1395	>
1396	>
1397	>
1398	>	//
1399	>	// final rings for the MVA
1400	>	//
1401	>	Double_t fChargedIso_DR0p0To0p1;
1402	>	Double_t fChargedIso_DR0p1To0p2;
1403	>	Double_t fChargedIso_DR0p2To0p3;
1404	>	Double_t fChargedIso_DR0p3To0p4;
1405	>	Double_t fChargedIso_DR0p4To0p5;
1406	>
1407	>	Double_t fGammaIso_DR0p0To0p1;
1408	>	Double_t fGammaIso_DR0p1To0p2;
1409	>	Double_t fGammaIso_DR0p2To0p3;
1410	>	Double_t fGammaIso_DR0p3To0p4;
1411	>	Double_t fGammaIso_DR0p4To0p5;
1412	>
1413	>	Double_t fNeutralHadronIso_DR0p0To0p1;
1414	>	Double_t fNeutralHadronIso_DR0p1To0p2;
1415	>	Double_t fNeutralHadronIso_DR0p2To0p3;
1416	>	Double_t fNeutralHadronIso_DR0p3To0p4;
1417	>	Double_t fNeutralHadronIso_DR0p4To0p5;
1418	>
1419	>
1420	>	//
1421	>	//Loop over PF Candidates
1422	>	//
1423	>	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
1424	>
1425	>	if( !(PFnoPUflag[k]) ) continue; // my PF no PU hack
1426	>
1427	>	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
1428	>	Double_t deta = (ele->Eta() - pf->Eta());
1429	>	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(ele->Phi()),Double_t(pf->Phi()));
1430	>	Double_t dr = mithep::MathUtils::DeltaR(ele->Phi(),ele->Eta(), pf->Phi(), pf->Eta());
1431	>	if (dr > 1.0) continue;
1432	>
1433	>	if(ctrl.debug) {
1434	>	cout << "pf :: type: " << pf->PFType() << "\tpt: " << pf->Pt();
1435	>	if( pf->HasTrackerTrk() ) cout << "\tdZ: " << pf->TrackerTrk()->DzCorrected(*vtx);
1436	>	cout << endl;
1437	>	}
1438	>
1439	>
1440	>	if ( (pf->HasTrackerTrk() && (pf->TrackerTrk() == ele->TrackerTrk())) ||
1441	>	(pf->HasGsfTrk() && (pf->GsfTrk() == ele->GsfTrk()))) continue;
1442	>
1443	>
1444	>	//
1445	>	// Lepton Footprint Removal
1446	>	//
1447	>	Bool_t IsLeptonFootprint = kFALSE;
1448	>	if (dr < 1.0) {
1449	>
1450	>
1451	>	//
1452	>	// Check for electrons
1453	>	//
1454	>
1455	>	for (Int_t q=0; q < electronsToVeto.size(); ++q) {
1456	>	const mithep::Electron *tmpele = electronsToVeto[q];
1457	>	double tmpdr = mithep::MathUtils::DeltaR(tmpele->Phi(),tmpele->Eta(), pf->Phi(), pf->Eta());
1458	>
1459	>	// 4l electron
1460	>	if( pf->HasTrackerTrk()  ) {
1461	>	if( pf->TrackerTrk() == tmpele->TrackerTrk() ) {
1462	>	if( ctrl.debug) cout << "\tcharged tktrk, matches 4L ele ..." << endl;
1463	>	IsLeptonFootprint = kTRUE;
1464	>	}
1465	>	}
1466	>	if( pf->HasGsfTrk()  ) {
1467	>	if( pf->GsfTrk() == tmpele->GsfTrk() ) {
1468	>	if( ctrl.debug) cout << "\tcharged gsftrk, matches 4L ele ..." << endl;
1469	>	IsLeptonFootprint = kTRUE;
1470	>	}
1471	>	}
1472	>	// PF charged
1473	>	if (pf->Charge() != 0 && fabs(tmpele->SCluster()->Eta()) >= 1.479 && tmpdr < 0.015) {
1474	>	if( ctrl.debug) cout << "\tcharged trk, dR matches 4L ele ..." << endl;
1475	>	IsLeptonFootprint = kTRUE;
1476	>	}
1477	>	// PF gamma
1478	>	if (abs(pf->PFType()) == PFCandidate::eGamma && fabs(tmpele->SCluster()->Eta()) >= 1.479
1479	>	&& tmpdr < 0.08) {
1480	>	if( ctrl.debug) cout << "\tPF gamma, matches 4L ele ..." << endl;
1481	>	IsLeptonFootprint = kTRUE;
1482	>	}
1483	>	} // loop over electrons
1484	>
1485	>
1486	>	/* KH - comment for sync
1487	>	//
1488	>	// Check for muons
1489	>	//
1490	>	for (Int_t q=0; q < muonsToVeto.size(); ++q) {
1491	>	const mithep::Muon *tmpmu = muonsToVeto[q];
1492	>	// 4l muon
1493	>	if( pf->HasTrackerTrk() ) {
1494	>	if (pf->TrackerTrk() == tmpmu->TrackerTrk() ){
1495	>	if( ctrl.debug) cout << "\tmatches 4L mu ..." << endl;
1496	>	IsLeptonFootprint = kTRUE;
1497	>	}
1498	>	}
1499	>	// PF charged
1500	>	if (pf->Charge() != 0 && mithep::MathUtils::DeltaR(tmpmu->Phi(),tmpmu->Eta(), pf->Phi(), pf->Eta()) < 0.01) {
1501	>	if( ctrl.debug) cout << "\tcharged trk, dR matches 4L mu ..." << endl;
1502	>	IsLeptonFootprint = kTRUE;
1503	>	}
1504	>	} // loop over muons
1505	>	*/
1506	>
1507	>	if (IsLeptonFootprint)
1508	>	continue;
1509	>
1510	>	//
1511	>	// Charged Iso Rings
1512	>	//
1513	>	if (pf->Charge() != 0 && (pf->HasTrackerTrk()||pf->HasGsfTrk()) ) {
1514	>
1515	>	//       if( pf->HasGsfTrk() ) {
1516	>	//       if (abs(pf->GsfTrk()->DzCorrected(vtx)) > 0.2) continue;
1517	>	//       } else if( pf->HasTrackerTrk() ){
1518	>	//      if (abs(pf->TrackerTrk()->DzCorrected(vtx)) > 0.2) continue;
1519	>	//       }
1520	>
1521	>	// Veto any PFmuon, or PFEle
1522	>	if (abs(pf->PFType()) == PFCandidate::eElectron || abs(pf->PFType()) == PFCandidate::eMuon) continue;
1523	>
1524	>	// Footprint Veto
1525	>	if (fabs(ele->SCluster()->Eta()) > 1.479 && dr < 0.015) continue;
1526	>
1527	>	if( ctrl.debug) cout << "charged:: pt: " << pf->Pt()
1528	>	<< "\ttype: " << pf->PFType()
1529	>	<< "\ttrk: " << pf->TrackerTrk() << endl;
1530	>
1531	>	if (dr < 0.1) tmpChargedIso_DR0p0To0p1 += pf->Pt();
1532	>	if (dr >= 0.1 && dr < 0.2) tmpChargedIso_DR0p1To0p2 += pf->Pt();
1533	>	if (dr >= 0.2 && dr < 0.3) tmpChargedIso_DR0p2To0p3 += pf->Pt();
1534	>	if (dr >= 0.3 && dr < 0.4) tmpChargedIso_DR0p3To0p4 += pf->Pt();
1535	>	if (dr >= 0.4 && dr < 0.5) tmpChargedIso_DR0p4To0p5 += pf->Pt();
1536	>
1537	>	}
1538	>
1539	>	//
1540	>	// Gamma Iso Rings
1541	>	//
1542	>	else if (abs(pf->PFType()) == PFCandidate::eGamma) {
1543	>
1544	>	if (fabs(ele->SCluster()->Eta()) > 1.479 && dr < 0.08) continue;
1545	>
1546	>	if( ctrl.debug) cout << "gamma:: " << pf->Pt() << " "
1547	>	<< dr << endl;
1548	>
1549	>	if (dr < 0.1) tmpGammaIso_DR0p0To0p1 += pf->Pt();
1550	>	if (dr >= 0.1 && dr < 0.2) tmpGammaIso_DR0p1To0p2 += pf->Pt();
1551	>	if (dr >= 0.2 && dr < 0.3) tmpGammaIso_DR0p2To0p3 += pf->Pt();
1552	>	if (dr >= 0.3 && dr < 0.4) tmpGammaIso_DR0p3To0p4 += pf->Pt();
1553	>	if (dr >= 0.4 && dr < 0.5) tmpGammaIso_DR0p4To0p5 += pf->Pt();
1554	>	}
1555	>
1556	>	//
1557	>	// Other Neutral Iso Rings
1558	>	//
1559	>	else {
1560	>	if( ctrl.debug) cout << "neutral:: " << pf->Pt() << " "
1561	>	<< dr << endl;
1562	>	if (dr < 0.1) tmpNeutralHadronIso_DR0p0To0p1 += pf->Pt();
1563	>	if (dr >= 0.1 && dr < 0.2) tmpNeutralHadronIso_DR0p1To0p2 += pf->Pt();
1564	>	if (dr >= 0.2 && dr < 0.3) tmpNeutralHadronIso_DR0p2To0p3 += pf->Pt();
1565	>	if (dr >= 0.3 && dr < 0.4) tmpNeutralHadronIso_DR0p3To0p4 += pf->Pt();
1566	>	if (dr >= 0.4 && dr < 0.5) tmpNeutralHadronIso_DR0p4To0p5 += pf->Pt();
1567	>	}
1568	>
1569	>	}
1570	>
1571	>	}
1572	>
1573	>	fChargedIso_DR0p0To0p1   = fmin((tmpChargedIso_DR0p0To0p1)/ele->Pt(), 2.5);
1574	>	fChargedIso_DR0p1To0p2   = fmin((tmpChargedIso_DR0p1To0p2)/ele->Pt(), 2.5);
1575	>	fChargedIso_DR0p2To0p3   = fmin((tmpChargedIso_DR0p2To0p3)/ele->Pt(), 2.5);
1576	>	fChargedIso_DR0p3To0p4   = fmin((tmpChargedIso_DR0p3To0p4)/ele->Pt(), 2.5);
1577	>	fChargedIso_DR0p4To0p5   = fmin((tmpChargedIso_DR0p4To0p5)/ele->Pt(), 2.5);
1578	>
1579	>	if(ctrl.debug) {
1580	>	cout << "fChargedIso_DR0p0To0p1 : " << fChargedIso_DR0p0To0p1  << endl;
1581	>	cout << "fChargedIso_DR0p1To0p2 : " << fChargedIso_DR0p1To0p2  << endl;
1582	>	cout << "fChargedIso_DR0p2To0p3 : " << fChargedIso_DR0p2To0p3  << endl;
1583	>	cout << "fChargedIso_DR0p3To0p4 : " << fChargedIso_DR0p3To0p4  << endl;
1584	>	cout << "fChargedIso_DR0p4To0p5 : " << fChargedIso_DR0p4To0p5  << endl;
1585	>	}
1586	>
1587	>
1588	>	double rho = 0;
1589	>	if (!(isnan(fPUEnergyDensity->At(0)->Rho()) || isinf(fPUEnergyDensity->At(0)->Rho())))
1590	>	rho = fPUEnergyDensity->At(0)->Rho();
1591	>	//   if (!(isnan(fPUEnergyDensity->At(0)->RhoLowEta()) || isinf(fPUEnergyDensity->At(0)->RhoLowEta())))
1592	>	//     rho = fPUEnergyDensity->At(0)->RhoLowEta();
1593	>
1594	>	// WARNING!!!!
1595	>	// hardcode for sync ...
1596	>	EffectiveAreaVersion = eleT.kEleEAData2011;
1597	>	// WARNING!!!!
1598	>
1599	>	if( ctrl.debug) {
1600	>	cout << "RHO: " << rho << endl;
1601	>	cout << "eta: " << ele->SCluster()->Eta() << endl;
1602	>	cout << "target: " << EffectiveAreaVersion << endl;
1603	>	cout << "effA 0-1: " << eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p0To0p1,
1604	>	ele->SCluster()->Eta(),
1605	>	EffectiveAreaVersion)
1606	>	<< endl;
1607	>	cout << "effA 1-2: " << eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p1To0p2,
1608	>	ele->SCluster()->Eta(),
1609	>	EffectiveAreaVersion)
1610	>	<< endl;
1611	>	cout << "effA 2-3: " << eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p2To0p3,
1612	>	ele->SCluster()->Eta(),
1613	>	EffectiveAreaVersion)
1614	>	<< endl;
1615	>	cout << "effA 3-4: " << eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p3To0p4,
1616	>	ele->SCluster()->Eta(),
1617	>	EffectiveAreaVersion)
1618	>	<< endl;
1619	>	}
1620	>
1621	>	fGammaIso_DR0p0To0p1 = fmax(fmin((tmpGammaIso_DR0p0To0p1
1622	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaIsoDR0p0To0p1,
1623	>	ele->SCluster()->Eta(),
1624	>	EffectiveAreaVersion))/ele->Pt()
1625	>	,2.5)
1626	>	,0.0);
1627	>	fGammaIso_DR0p1To0p2 = fmax(fmin((tmpGammaIso_DR0p1To0p2
1628	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaIsoDR0p1To0p2,
1629	>	ele->SCluster()->Eta(),
1630	>	EffectiveAreaVersion))/ele->Pt()
1631	>	,2.5)
1632	>	,0.0);
1633	>	fGammaIso_DR0p2To0p3 = fmax(fmin((tmpGammaIso_DR0p2To0p3
1634	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaIsoDR0p2To0p3,
1635	>	ele->SCluster()->Eta()
1636	>	,EffectiveAreaVersion))/ele->Pt()
1637	>	,2.5)
1638	>	,0.0);
1639	>	fGammaIso_DR0p3To0p4 = fmax(fmin((tmpGammaIso_DR0p3To0p4
1640	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaIsoDR0p3To0p4,
1641	>	ele->SCluster()->Eta(),
1642	>	EffectiveAreaVersion))/ele->Pt()
1643	>	,2.5)
1644	>	,0.0);
1645	>	fGammaIso_DR0p4To0p5 = fmax(fmin((tmpGammaIso_DR0p4To0p5
1646	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaIsoDR0p4To0p5,
1647	>	ele->SCluster()->Eta(),
1648	>	EffectiveAreaVersion))/ele->Pt()
1649	>	,2.5)
1650	>	,0.0);
1651	>
1652	>
1653	>	if( ctrl.debug) {
1654	>	cout << "fGammaIso_DR0p0To0p1: " << fGammaIso_DR0p0To0p1 << endl;
1655	>	cout << "fGammaIso_DR0p1To0p2: " << fGammaIso_DR0p1To0p2 << endl;
1656	>	cout << "fGammaIso_DR0p2To0p3: " << fGammaIso_DR0p2To0p3 << endl;
1657	>	cout << "fGammaIso_DR0p3To0p4: " << fGammaIso_DR0p3To0p4 << endl;
1658	>	cout << "fGammaIso_DR0p4To0p5: " << fGammaIso_DR0p4To0p5 << endl;
1659	>	}
1660	>
1661	>	fNeutralHadronIso_DR0p0To0p1 = fmax(fmin((tmpNeutralHadronIso_DR0p0To0p1
1662	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p0To0p1,
1663	>	ele->SCluster()->Eta(),EffectiveAreaVersion))/ele->Pt()
1664	>	, 2.5)
1665	>	, 0.0);
1666	>	fNeutralHadronIso_DR0p1To0p2 = fmax(fmin((tmpNeutralHadronIso_DR0p1To0p2
1667	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p1To0p2,
1668	>	ele->SCluster()->Eta(),EffectiveAreaVersion))/ele->Pt()
1669	>	, 2.5)
1670	>	, 0.0);
1671	>	fNeutralHadronIso_DR0p2To0p3 = fmax(fmin((tmpNeutralHadronIso_DR0p2To0p3
1672	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p2To0p3,
1673	>	ele->SCluster()->Eta(),EffectiveAreaVersion))/ele->Pt()
1674	>	, 2.5)
1675	>	, 0.0);
1676	>	fNeutralHadronIso_DR0p3To0p4 = fmax(fmin((tmpNeutralHadronIso_DR0p3To0p4
1677	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p3To0p4,
1678	>	ele->SCluster()->Eta(), EffectiveAreaVersion))/ele->Pt()
1679	>	, 2.5)
1680	>	, 0.0);
1681	>	fNeutralHadronIso_DR0p4To0p5 = fmax(fmin((tmpNeutralHadronIso_DR0p4To0p5
1682	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p4To0p5,
1683	>	ele->SCluster()->Eta(), EffectiveAreaVersion))/ele->Pt()
1684	>	, 2.5)
1685	>	, 0.0);
1686	>
1687	>	if( ctrl.debug) {
1688	>	cout << "fNeutralHadronIso_DR0p0To0p1: " << fNeutralHadronIso_DR0p0To0p1 << endl;
1689	>	cout << "fNeutralHadronIso_DR0p1To0p2: " << fNeutralHadronIso_DR0p1To0p2 << endl;
1690	>	cout << "fNeutralHadronIso_DR0p2To0p3: " << fNeutralHadronIso_DR0p2To0p3 << endl;
1691	>	cout << "fNeutralHadronIso_DR0p3To0p4: " << fNeutralHadronIso_DR0p3To0p4 << endl;
1692	>	cout << "fNeutralHadronIso_DR0p4To0p5: " << fNeutralHadronIso_DR0p4To0p5 << endl;
1693	>	}
1694	>
1695	>	double mvaval = eleIsoMVA->MVAValue_IsoRings( ele->Pt(),
1696	>	ele->SCluster()->Eta(),
1697	>	fChargedIso_DR0p0To0p1,
1698	>	fChargedIso_DR0p1To0p2,
1699	>	fChargedIso_DR0p2To0p3,
1700	>	fChargedIso_DR0p3To0p4,
1701	>	fChargedIso_DR0p4To0p5,
1702	>	fGammaIso_DR0p0To0p1,
1703	>	fGammaIso_DR0p1To0p2,
1704	>	fGammaIso_DR0p2To0p3,
1705	>	fGammaIso_DR0p3To0p4,
1706	>	fGammaIso_DR0p4To0p5,
1707	>	fNeutralHadronIso_DR0p0To0p1,
1708	>	fNeutralHadronIso_DR0p1To0p2,
1709	>	fNeutralHadronIso_DR0p2To0p3,
1710	>	fNeutralHadronIso_DR0p3To0p4,
1711	>	fNeutralHadronIso_DR0p4To0p5,
1712	>	ctrl.debug);
1713	>
1714	>	SelectionStatus status;
1715	>	status.isoMVA = mvaval;
1716	>	bool pass = false;
1717	>
1718	>	Int_t subdet = 0;
1719	>	if (fabs(ele->SCluster()->Eta()) < 0.8) subdet = 0;
1720	>	else if (fabs(ele->SCluster()->Eta()) < 1.479) subdet = 1;
1721	>	else subdet = 2;
1722	>
1723	>	Int_t ptBin = 0;
1724	>	if (ele->Pt() >= 10.0) ptBin = 1;
1725	>
1726	>	Int_t MVABin = -1;
1727	>	if (subdet == 0 && ptBin == 0) MVABin = 0;
1728	>	if (subdet == 1 && ptBin == 0) MVABin = 1;
1729	>	if (subdet == 2 && ptBin == 0) MVABin = 2;
1730	>	if (subdet == 0 && ptBin == 1) MVABin = 3;
1731	>	if (subdet == 1 && ptBin == 1) MVABin = 4;
1732	>	if (subdet == 2 && ptBin == 1) MVABin = 5;
1733	>
1734	>	pass = false;
1735	>	if( MVABin == 0 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_OPT_BIN0 ) pass = true;
1736	>	if( MVABin == 1 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_OPT_BIN1 ) pass = true;
1737	>	if( MVABin == 2 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_OPT_BIN2 ) pass = true;
1738	>	if( MVABin == 3 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_OPT_BIN3 ) pass = true;
1739	>	if( MVABin == 4 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_OPT_BIN4 ) pass = true;
1740	>	if( MVABin == 5 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_OPT_BIN5 ) pass = true;
1741	>	//  pass &= (fChargedIso_DR0p0To0p1 + fChargedIso_DR0p1To0p2 + fChargedIso_DR0p2To0p3 < 0.7);
1742	>	if( pass ) status.orStatus(SelectionStatus::LOOSEISO);
1743	>
1744	>	//   pass = false;
1745	>	//   if( MVABin == 0 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN0 ) pass = true;
1746	>	//   if( MVABin == 1 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN1 ) pass = true;
1747	>	//   if( MVABin == 2 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN2 ) pass = true;
1748	>	//   if( MVABin == 3 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN3 ) pass = true;
1749	>	//   if( MVABin == 4 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN4 ) pass = true;
1750	>	//   if( MVABin == 5 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN5 ) pass = true;
1751	>	//   if( pass ) status.orStatus(SelectionStatus::TIGHTISO);
1752	>
1753	>	if(ctrl.debug) cout << "returning status : " << hex << status.getStatus() << dec << endl;
1754	>	return status;
1755	>
1756	>	}
1757	>
1758	>
1759	>	//--------------------------------------------------------------------------------------------------
1760	>	SelectionStatus electronIsoMVASelection(ControlFlags &ctrl,
1761	>	const mithep::Electron * ele,
1762	>	const mithep::Vertex * vtx,
1763	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
1764	>	float rho,
1765	>	//const mithep::Array<mithep::PileupEnergyDensity> * fPUEnergyDensity,
1766	>	mithep::ElectronTools::EElectronEffectiveAreaTarget EffectiveAreaVersion,
1767	>	vector<const mithep::Muon*> muonsToVeto,
1768	>	vector<const mithep::Electron*> electronsToVeto)
1769	>	//--------------------------------------------------------------------------------------------------
1770	>	// hacked version
1771	>	{
1772	>	if( ctrl.debug ) {
1773	>	cout << "================> hacked ele Iso MVA <======================" << endl;
1774	>	}
1775	>
1776	>	if( ctrl.debug ) {
1777	>	cout << "electronIsoMVASelection :: muons to veto " << endl;
1778	>	for( int i=0; i<muonsToVeto.size(); i++ ) {
1779	>	const mithep::Muon * vmu = muonsToVeto[i];
1780	>	cout << "\tpt: " << vmu->Pt()
1781	>	<< "\teta: " << vmu->Eta()
1782	>	<< "\tphi: " << vmu->Phi()
1783	>	<< endl;
1784	>	}
1785	>	cout << "electronIsoMVASelection :: electrson to veto " << endl;
1786	>	for( int i=0; i<electronsToVeto.size(); i++ ) {
1787	>	const mithep::Electron * vel = electronsToVeto[i];
1788	>	cout << "\tpt: " << vel->Pt()
1789	>	<< "\teta: " << vel->Eta()
1790	>	<< "\tphi: " << vel->Phi()
1791	>	<< "\ttrk: " << vel->TrackerTrk()
1792	>	<< endl;
1793	>	}
1794	>	}
1795	>
1796	>	bool failiso=false;
1797	>
1798	>	//
1799	>	// tmp iso rings
1800	>	//
1801	>	Double_t tmpChargedIso_DR0p0To0p1  = 0;
1802	>	Double_t tmpChargedIso_DR0p1To0p2  = 0;
1803	>	Double_t tmpChargedIso_DR0p2To0p3  = 0;
1804	>	Double_t tmpChargedIso_DR0p3To0p4  = 0;
1805	>	Double_t tmpChargedIso_DR0p4To0p5  = 0;
1806	>
1807	>	Double_t tmpGammaIso_DR0p0To0p1  = 0;
1808	>	Double_t tmpGammaIso_DR0p1To0p2  = 0;
1809	>	Double_t tmpGammaIso_DR0p2To0p3  = 0;
1810	>	Double_t tmpGammaIso_DR0p3To0p4  = 0;
1811	>	Double_t tmpGammaIso_DR0p4To0p5  = 0;
1812	>
1813	>
1814	>	Double_t tmpNeutralHadronIso_DR0p0To0p1  = 0;
1815	>	Double_t tmpNeutralHadronIso_DR0p1To0p2  = 0;
1816	>	Double_t tmpNeutralHadronIso_DR0p2To0p3  = 0;
1817	>	Double_t tmpNeutralHadronIso_DR0p3To0p4  = 0;
1818	>	Double_t tmpNeutralHadronIso_DR0p4To0p5  = 0;
1819	>
1820	>
1821	>
1822	>	//
1823	>	// final rings for the MVA
1824	>	//
1825	>	Double_t fChargedIso_DR0p0To0p1;
1826	>	Double_t fChargedIso_DR0p1To0p2;
1827	>	Double_t fChargedIso_DR0p2To0p3;
1828	>	Double_t fChargedIso_DR0p3To0p4;
1829	>	Double_t fChargedIso_DR0p4To0p5;
1830	>
1831	>	Double_t fGammaIso_DR0p0To0p1;
1832	>	Double_t fGammaIso_DR0p1To0p2;
1833	>	Double_t fGammaIso_DR0p2To0p3;
1834	>	Double_t fGammaIso_DR0p3To0p4;
1835	>	Double_t fGammaIso_DR0p4To0p5;
1836	>
1837	>	Double_t fNeutralHadronIso_DR0p0To0p1;
1838	>	Double_t fNeutralHadronIso_DR0p1To0p2;
1839	>	Double_t fNeutralHadronIso_DR0p2To0p3;
1840	>	Double_t fNeutralHadronIso_DR0p3To0p4;
1841	>	Double_t fNeutralHadronIso_DR0p4To0p5;
1842	>
1843	>
1844	>	//
1845	>	//Loop over PF Candidates
1846	>	//
1847	>	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
1848	>
1849	>	if( !(PFnoPUflag[k]) ) continue; // my PF no PU hack
1850	>
1851	>	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
1852	>	Double_t deta = (ele->Eta() - pf->Eta());
1853	>	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(ele->Phi()),Double_t(pf->Phi()));
1854	>	Double_t dr = mithep::MathUtils::DeltaR(ele->Phi(),ele->Eta(), pf->Phi(), pf->Eta());
1855	>	if (dr > 1.0) continue;
1856	>
1857	>	if(ctrl.debug) {
1858	>	cout << "pf :: type: " << pf->PFType() << "\tpt: " << pf->Pt();
1859	>	if( pf->HasTrackerTrk() ) cout << "\tdZ: " << pf->TrackerTrk()->DzCorrected(*vtx);
1860	>	cout << endl;
1861	>	}
1862	>
1863	>
1864	>	if ( (pf->HasTrackerTrk() && (pf->TrackerTrk() == ele->TrackerTrk())) ||
1865	>	(pf->HasGsfTrk() && (pf->GsfTrk() == ele->GsfTrk()))) continue;
1866	>
1867	>
1868	>	//
1869	>	// Lepton Footprint Removal
1870	>	//
1871	>	Bool_t IsLeptonFootprint = kFALSE;
1872	>	if (dr < 1.0) {
1873	>
1874	>
1875	>	//
1876	>	// Check for electrons
1877	>	//
1878	>
1879	>	for (Int_t q=0; q < electronsToVeto.size(); ++q) {
1880	>	const mithep::Electron *tmpele = electronsToVeto[q];
1881	>	double tmpdr = mithep::MathUtils::DeltaR(tmpele->Phi(),tmpele->Eta(), pf->Phi(), pf->Eta());
1882	>
1883	>	// 4l electron
1884	>	if( pf->HasTrackerTrk()  ) {
1885	>	if( pf->TrackerTrk() == tmpele->TrackerTrk() ) {
1886	>	if( ctrl.debug) cout << "\tcharged tktrk, matches 4L ele ..." << endl;
1887	>	IsLeptonFootprint = kTRUE;
1888	>	}
1889	>	}
1890	>	if( pf->HasGsfTrk()  ) {
1891	>	if( pf->GsfTrk() == tmpele->GsfTrk() ) {
1892	>	if( ctrl.debug) cout << "\tcharged gsftrk, matches 4L ele ..." << endl;
1893	>	IsLeptonFootprint = kTRUE;
1894	>	}
1895	>	}
1896	>	// PF charged
1897	>	if (pf->Charge() != 0 && fabs(tmpele->SCluster()->Eta()) >= 1.479 && tmpdr < 0.015) {
1898	>	if( ctrl.debug) cout << "\tcharged trk, dR matches 4L ele ..." << endl;
1899	>	IsLeptonFootprint = kTRUE;
1900	>	}
1901	>	// PF gamma
1902	>	if (abs(pf->PFType()) == PFCandidate::eGamma && fabs(tmpele->SCluster()->Eta()) >= 1.479
1903	>	&& tmpdr < 0.08) {
1904	>	if( ctrl.debug) cout << "\tPF gamma, matches 4L ele ..." << endl;
1905	>	IsLeptonFootprint = kTRUE;
1906	>	}
1907	>	} // loop over electrons
1908	>
1909	>
1910	>	/* KH - comment for sync
1911	>	//
1912	>	// Check for muons
1913	>	//
1914	>	for (Int_t q=0; q < muonsToVeto.size(); ++q) {
1915	>	const mithep::Muon *tmpmu = muonsToVeto[q];
1916	>	// 4l muon
1917	>	if( pf->HasTrackerTrk() ) {
1918	>	if (pf->TrackerTrk() == tmpmu->TrackerTrk() ){
1919	>	if( ctrl.debug) cout << "\tmatches 4L mu ..." << endl;
1920	>	IsLeptonFootprint = kTRUE;
1921	>	}
1922	>	}
1923	>	// PF charged
1924	>	if (pf->Charge() != 0 && mithep::MathUtils::DeltaR(tmpmu->Phi(),tmpmu->Eta(), pf->Phi(), pf->Eta()) < 0.01) {
1925	>	if( ctrl.debug) cout << "\tcharged trk, dR matches 4L mu ..." << endl;
1926	>	IsLeptonFootprint = kTRUE;
1927	>	}
1928	>	} // loop over muons
1929	>	*/
1930	>
1931	>	if (IsLeptonFootprint)
1932	>	continue;
1933	>
1934	>	//
1935	>	// Charged Iso Rings
1936	>	//
1937	>	if (pf->Charge() != 0 && (pf->HasTrackerTrk()||pf->HasGsfTrk()) ) {
1938	>
1939	>	//       if( pf->HasGsfTrk() ) {
1940	>	//       if (abs(pf->GsfTrk()->DzCorrected(vtx)) > 0.2) continue;
1941	>	//       } else if( pf->HasTrackerTrk() ){
1942	>	//      if (abs(pf->TrackerTrk()->DzCorrected(vtx)) > 0.2) continue;
1943	>	//       }
1944	>
1945	>	// Veto any PFmuon, or PFEle
1946	>	if (abs(pf->PFType()) == PFCandidate::eElectron || abs(pf->PFType()) == PFCandidate::eMuon) continue;
1947	>
1948	>	// Footprint Veto
1949	>	if (fabs(ele->SCluster()->Eta()) > 1.479 && dr < 0.015) continue;
1950	>
1951	>	if( ctrl.debug) cout << "charged:: pt: " << pf->Pt()
1952	>	<< "\ttype: " << pf->PFType()
1953	>	<< "\ttrk: " << pf->TrackerTrk() << endl;
1954	>
1955	>	if (dr < 0.1) tmpChargedIso_DR0p0To0p1 += pf->Pt();
1956	>	if (dr >= 0.1 && dr < 0.2) tmpChargedIso_DR0p1To0p2 += pf->Pt();
1957	>	if (dr >= 0.2 && dr < 0.3) tmpChargedIso_DR0p2To0p3 += pf->Pt();
1958	>	if (dr >= 0.3 && dr < 0.4) tmpChargedIso_DR0p3To0p4 += pf->Pt();
1959	>	if (dr >= 0.4 && dr < 0.5) tmpChargedIso_DR0p4To0p5 += pf->Pt();
1960	>
1961	>	}
1962	>
1963	>	//
1964	>	// Gamma Iso Rings
1965	>	//
1966	>	else if (abs(pf->PFType()) == PFCandidate::eGamma) {
1967	>
1968	>	if (fabs(ele->SCluster()->Eta()) > 1.479 && dr < 0.08) continue;
1969	>
1970	>	if( ctrl.debug) cout << "gamma:: " << pf->Pt() << " "
1971	>	<< dr << endl;
1972	>
1973	>	if (dr < 0.1) tmpGammaIso_DR0p0To0p1 += pf->Pt();
1974	>	if (dr >= 0.1 && dr < 0.2) tmpGammaIso_DR0p1To0p2 += pf->Pt();
1975	>	if (dr >= 0.2 && dr < 0.3) tmpGammaIso_DR0p2To0p3 += pf->Pt();
1976	>	if (dr >= 0.3 && dr < 0.4) tmpGammaIso_DR0p3To0p4 += pf->Pt();
1977	>	if (dr >= 0.4 && dr < 0.5) tmpGammaIso_DR0p4To0p5 += pf->Pt();
1978	>	}
1979	>
1980	>	//
1981	>	// Other Neutral Iso Rings
1982	>	//
1983	>	else {
1984	>	if( ctrl.debug) cout << "neutral:: " << pf->Pt() << " "
1985	>	<< dr << endl;
1986	>	if (dr < 0.1) tmpNeutralHadronIso_DR0p0To0p1 += pf->Pt();
1987	>	if (dr >= 0.1 && dr < 0.2) tmpNeutralHadronIso_DR0p1To0p2 += pf->Pt();
1988	>	if (dr >= 0.2 && dr < 0.3) tmpNeutralHadronIso_DR0p2To0p3 += pf->Pt();
1989	>	if (dr >= 0.3 && dr < 0.4) tmpNeutralHadronIso_DR0p3To0p4 += pf->Pt();
1990	>	if (dr >= 0.4 && dr < 0.5) tmpNeutralHadronIso_DR0p4To0p5 += pf->Pt();
1991	>	}
1992	>
1993	>	}
1994	>
1995	>	}
1996	>
1997	>	fChargedIso_DR0p0To0p1   = fmin((tmpChargedIso_DR0p0To0p1)/ele->Pt(), 2.5);
1998	>	fChargedIso_DR0p1To0p2   = fmin((tmpChargedIso_DR0p1To0p2)/ele->Pt(), 2.5);
1999	>	fChargedIso_DR0p2To0p3   = fmin((tmpChargedIso_DR0p2To0p3)/ele->Pt(), 2.5);
2000	>	fChargedIso_DR0p3To0p4   = fmin((tmpChargedIso_DR0p3To0p4)/ele->Pt(), 2.5);
2001	>	fChargedIso_DR0p4To0p5   = fmin((tmpChargedIso_DR0p4To0p5)/ele->Pt(), 2.5);
2002	>
2003	>	if(ctrl.debug) {
2004	>	cout << "fChargedIso_DR0p0To0p1 : " << fChargedIso_DR0p0To0p1  << endl;
2005	>	cout << "fChargedIso_DR0p1To0p2 : " << fChargedIso_DR0p1To0p2  << endl;
2006	>	cout << "fChargedIso_DR0p2To0p3 : " << fChargedIso_DR0p2To0p3  << endl;
2007	>	cout << "fChargedIso_DR0p3To0p4 : " << fChargedIso_DR0p3To0p4  << endl;
2008	>	cout << "fChargedIso_DR0p4To0p5 : " << fChargedIso_DR0p4To0p5  << endl;
2009	>	}
2010	>
2011	>
2012	>	//  rho=0;
2013	>	//  double rho = 0;
2014	>	//   if (!(isnan(fPUEnergyDensity->At(0)->Rho()) || isinf(fPUEnergyDensity->At(0)->Rho())))
2015	>	//     rho = fPUEnergyDensity->At(0)->Rho();
2016	>	//   if (!(isnan(fPUEnergyDensity->At(0)->RhoLowEta()) || isinf(fPUEnergyDensity->At(0)->RhoLowEta())))
2017	>	//     rho = fPUEnergyDensity->At(0)->RhoLowEta();
2018	>
2019	>	// WARNING!!!!
2020	>	// hardcode for sync ...
2021	>	EffectiveAreaVersion = eleT.kEleEAData2011;
2022	>	// WARNING!!!!
2023	>
2024	>	if( ctrl.debug) {
2025	>	cout << "RHO: " << rho << endl;
2026	>	cout << "eta: " << ele->SCluster()->Eta() << endl;
2027	>	cout << "target: " << EffectiveAreaVersion << endl;
2028	>	cout << "effA 0-1: " << eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p0To0p1,
2029	>	ele->SCluster()->Eta(),
2030	>	EffectiveAreaVersion)
2031	>	<< endl;
2032	>	cout << "effA 1-2: " << eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p1To0p2,
2033	>	ele->SCluster()->Eta(),
2034	>	EffectiveAreaVersion)
2035	>	<< endl;
2036	>	cout << "effA 2-3: " << eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p2To0p3,
2037	>	ele->SCluster()->Eta(),
2038	>	EffectiveAreaVersion)
2039	>	<< endl;
2040	>	cout << "effA 3-4: " << eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p3To0p4,
2041	>	ele->SCluster()->Eta(),
2042	>	EffectiveAreaVersion)
2043	>	<< endl;
2044	>	}
2045	>
2046	>	fGammaIso_DR0p0To0p1 = fmax(fmin((tmpGammaIso_DR0p0To0p1
2047	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaIsoDR0p0To0p1,
2048	>	ele->SCluster()->Eta(),
2049	>	EffectiveAreaVersion))/ele->Pt()
2050	>	,2.5)
2051	>	,0.0);
2052	>	fGammaIso_DR0p1To0p2 = fmax(fmin((tmpGammaIso_DR0p1To0p2
2053	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaIsoDR0p1To0p2,
2054	>	ele->SCluster()->Eta(),
2055	>	EffectiveAreaVersion))/ele->Pt()
2056	>	,2.5)
2057	>	,0.0);
2058	>	fGammaIso_DR0p2To0p3 = fmax(fmin((tmpGammaIso_DR0p2To0p3
2059	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaIsoDR0p2To0p3,
2060	>	ele->SCluster()->Eta()
2061	>	,EffectiveAreaVersion))/ele->Pt()
2062	>	,2.5)
2063	>	,0.0);
2064	>	fGammaIso_DR0p3To0p4 = fmax(fmin((tmpGammaIso_DR0p3To0p4
2065	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaIsoDR0p3To0p4,
2066	>	ele->SCluster()->Eta(),
2067	>	EffectiveAreaVersion))/ele->Pt()
2068	>	,2.5)
2069	>	,0.0);
2070	>	fGammaIso_DR0p4To0p5 = fmax(fmin((tmpGammaIso_DR0p4To0p5
2071	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaIsoDR0p4To0p5,
2072	>	ele->SCluster()->Eta(),
2073	>	EffectiveAreaVersion))/ele->Pt()
2074	>	,2.5)
2075	>	,0.0);
2076	>
2077	>
2078	>	if( ctrl.debug) {
2079	>	cout << "fGammaIso_DR0p0To0p1: " << fGammaIso_DR0p0To0p1 << endl;
2080	>	cout << "fGammaIso_DR0p1To0p2: " << fGammaIso_DR0p1To0p2 << endl;
2081	>	cout << "fGammaIso_DR0p2To0p3: " << fGammaIso_DR0p2To0p3 << endl;
2082	>	cout << "fGammaIso_DR0p3To0p4: " << fGammaIso_DR0p3To0p4 << endl;
2083	>	cout << "fGammaIso_DR0p4To0p5: " << fGammaIso_DR0p4To0p5 << endl;
2084	>	}
2085	>
2086	>	fNeutralHadronIso_DR0p0To0p1 = fmax(fmin((tmpNeutralHadronIso_DR0p0To0p1
2087	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p0To0p1,
2088	>	ele->SCluster()->Eta(),EffectiveAreaVersion))/ele->Pt()
2089	>	, 2.5)
2090	>	, 0.0);
2091	>	fNeutralHadronIso_DR0p1To0p2 = fmax(fmin((tmpNeutralHadronIso_DR0p1To0p2
2092	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p1To0p2,
2093	>	ele->SCluster()->Eta(),EffectiveAreaVersion))/ele->Pt()
2094	>	, 2.5)
2095	>	, 0.0);
2096	>	fNeutralHadronIso_DR0p2To0p3 = fmax(fmin((tmpNeutralHadronIso_DR0p2To0p3
2097	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p2To0p3,
2098	>	ele->SCluster()->Eta(),EffectiveAreaVersion))/ele->Pt()
2099	>	, 2.5)
2100	>	, 0.0);
2101	>	fNeutralHadronIso_DR0p3To0p4 = fmax(fmin((tmpNeutralHadronIso_DR0p3To0p4
2102	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p3To0p4,
2103	>	ele->SCluster()->Eta(), EffectiveAreaVersion))/ele->Pt()
2104	>	, 2.5)
2105	>	, 0.0);
2106	>	fNeutralHadronIso_DR0p4To0p5 = fmax(fmin((tmpNeutralHadronIso_DR0p4To0p5
2107	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleNeutralHadronIsoDR0p4To0p5,
2108	>	ele->SCluster()->Eta(), EffectiveAreaVersion))/ele->Pt()
2109	>	, 2.5)
2110	>	, 0.0);
2111	>
2112	>	if( ctrl.debug) {
2113	>	cout << "fNeutralHadronIso_DR0p0To0p1: " << fNeutralHadronIso_DR0p0To0p1 << endl;
2114	>	cout << "fNeutralHadronIso_DR0p1To0p2: " << fNeutralHadronIso_DR0p1To0p2 << endl;
2115	>	cout << "fNeutralHadronIso_DR0p2To0p3: " << fNeutralHadronIso_DR0p2To0p3 << endl;
2116	>	cout << "fNeutralHadronIso_DR0p3To0p4: " << fNeutralHadronIso_DR0p3To0p4 << endl;
2117	>	cout << "fNeutralHadronIso_DR0p4To0p5: " << fNeutralHadronIso_DR0p4To0p5 << endl;
2118	>	}
2119	>
2120	>	double mvaval = eleIsoMVA->MVAValue_IsoRings( ele->Pt(),
2121	>	ele->SCluster()->Eta(),
2122	>	fChargedIso_DR0p0To0p1,
2123	>	fChargedIso_DR0p1To0p2,
2124	>	fChargedIso_DR0p2To0p3,
2125	>	fChargedIso_DR0p3To0p4,
2126	>	fChargedIso_DR0p4To0p5,
2127	>	fGammaIso_DR0p0To0p1,
2128	>	fGammaIso_DR0p1To0p2,
2129	>	fGammaIso_DR0p2To0p3,
2130	>	fGammaIso_DR0p3To0p4,
2131	>	fGammaIso_DR0p4To0p5,
2132	>	fNeutralHadronIso_DR0p0To0p1,
2133	>	fNeutralHadronIso_DR0p1To0p2,
2134	>	fNeutralHadronIso_DR0p2To0p3,
2135	>	fNeutralHadronIso_DR0p3To0p4,
2136	>	fNeutralHadronIso_DR0p4To0p5,
2137	>	ctrl.debug);
2138	>
2139	>	SelectionStatus status;
2140	>	status.isoMVA = mvaval;
2141	>	bool pass = false;
2142	>
2143	>	Int_t subdet = 0;
2144	>	if (fabs(ele->SCluster()->Eta()) < 0.8) subdet = 0;
2145	>	else if (fabs(ele->SCluster()->Eta()) < 1.479) subdet = 1;
2146	>	else subdet = 2;
2147	>
2148	>	Int_t ptBin = 0;
2149	>	if (ele->Pt() >= 10.0) ptBin = 1;
2150	>
2151	>	Int_t MVABin = -1;
2152	>	if (subdet == 0 && ptBin == 0) MVABin = 0;
2153	>	if (subdet == 1 && ptBin == 0) MVABin = 1;
2154	>	if (subdet == 2 && ptBin == 0) MVABin = 2;
2155	>	if (subdet == 0 && ptBin == 1) MVABin = 3;
2156	>	if (subdet == 1 && ptBin == 1) MVABin = 4;
2157	>	if (subdet == 2 && ptBin == 1) MVABin = 5;
2158	>
2159	>	pass = false;
2160	>	if( MVABin == 0 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_BIN0 ) pass = true;
2161	>	if( MVABin == 1 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_BIN1 ) pass = true;
2162	>	if( MVABin == 2 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_BIN2 ) pass = true;
2163	>	if( MVABin == 3 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_BIN3 ) pass = true;
2164	>	if( MVABin == 4 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_BIN4 ) pass = true;
2165	>	if( MVABin == 5 && mvaval > ELECTRON_LOOSE_ISOMVA_CUT_BIN5 ) pass = true;
2166	>	if( pass ) status.orStatus(SelectionStatus::LOOSEISO);
2167	>
2168	>	//   pass = false;
2169	>	//   if( MVABin == 0 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN0 ) pass = true;
2170	>	//   if( MVABin == 1 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN1 ) pass = true;
2171	>	//   if( MVABin == 2 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN2 ) pass = true;
2172	>	//   if( MVABin == 3 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN3 ) pass = true;
2173	>	//   if( MVABin == 4 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN4 ) pass = true;
2174	>	//   if( MVABin == 5 && mvaval > ELECTRON_TIGHT_ISOMVA_CUT_BIN5 ) pass = true;
2175	>	//   if( pass ) status.orStatus(SelectionStatus::TIGHTISO);
2176	>
2177	>	if(ctrl.debug) cout << "returning status : " << hex << status.getStatus() << dec << endl;
2178	>	return status;
2179	>
2180	>	}
2181	>
2182	>
2183	>	//--------------------------------------------------------------------------------------------------
2184	>	void initElectronIsoMVA() {
2185	>	//--------------------------------------------------------------------------------------------------
2186	>	eleIsoMVA = new mithep::ElectronIDMVA();
2187	>	vector<string> weightFiles;
2188	>	weightFiles.push_back("../MitPhysics/data/ElectronMVAWeights/ElectronIso_BDTG_V0_BarrelPt5To10.weights.xml");
2189	>	weightFiles.push_back("../MitPhysics/data/ElectronMVAWeights/ElectronIso_BDTG_V0_EndcapPt5To10.weights.xml");
2190	>	weightFiles.push_back("../MitPhysics/data/ElectronMVAWeights/ElectronIso_BDTG_V0_BarrelPt10ToInf.weights.xml");
2191	>	weightFiles.push_back("../MitPhysics/data/ElectronMVAWeights/ElectronIso_BDTG_V0_EndcapPt10ToInf.weights.xml");
2192	>	eleIsoMVA->Initialize( "ElectronIsoMVA",
2193	>	mithep::ElectronIDMVA::kIsoRingsV0,
2194	>	kTRUE, weightFiles);
2195	>	}
2196	>
2197	>
2198	>
2199	>
2200	>	//--------------------------------------------------------------------------------------------------
2201	>	float electronPFIso04(ControlFlags &ctrl,
2202	>	const mithep::Electron * ele,
2203	>	const mithep::Vertex * vtx,
2204	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
2205	>	const mithep::Array<mithep::PileupEnergyDensity> * fPUEnergyDensity,
2206	>	mithep::ElectronTools::EElectronEffectiveAreaTarget EffectiveAreaVersion,
2207	>	vector<const mithep::PFCandidate*> photonsToVeto)
2208	>	//--------------------------------------------------------------------------------------------------
2209	>	{
2210	>
2211	>	//
2212	>	// final iso
2213	>	//
2214	>	Double_t fChargedIso = 0.0;
2215	>	Double_t fGammaIso = 0.0;
2216	>	Double_t fNeutralHadronIso = 0.0;
2217	>
2218	>
2219	>	//
2220	>	//Loop over PF Candidates
2221	>	//
2222	>	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
2223	>
2224	>	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
2225	>
2226	>	//
2227	>	// veto FSR recovered photons
2228	>	//
2229	>	bool vetoPhoton = false;
2230	>	for( int p=0; p<photonsToVeto.size(); p++ ) {
2231	>	if( pf == photonsToVeto[p] ) {
2232	>	vetoPhoton = true;
2233	>	break;
2234	>	}
2235	>	} if( vetoPhoton ) continue;
2236	>
2237	>	Double_t deta = (ele->Eta() - pf->Eta());
2238	>	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(ele->Phi()),Double_t(pf->Phi()));
2239	>	Double_t dr = mithep::MathUtils::DeltaR(ele->Phi(),ele->Eta(), pf->Phi(), pf->Eta());
2240	>
2241	>	if (dr > 0.4) continue;
2242	>	if( !(PFnoPUflag[k]) ) continue; // my PF no PU hack
2243	>
2244	>	if(ctrl.debug) {
2245	>	cout << "pf :: type: " << pf->PFType() << "\tpt: " << pf->Pt() << "\tdR: " << dr;
2246	>	if( pf->HasTrackerTrk() ) cout << "\tdZ: " << pf->TrackerTrk()->DzCorrected(*vtx)
2247	>	<< "\ttrk: " << pf->HasTrackerTrk()
2248	>	<< "\tgsf: " << pf->HasGsfTrk();
2249	>
2250	>	cout << endl;
2251	>	}
2252	>
2253	>
2254	>	//
2255	>	// sync : I don't think theyre doing this ...
2256	>	//
2257	>	//     if ( (pf->HasTrackerTrk() && (pf->TrackerTrk() == ele->TrackerTrk())) ||
2258	>	//   (pf->HasGsfTrk() && (pf->GsfTrk() == ele->GsfTrk()))) {
2259	>	//       if( ctrl.debug ) cout << "\tskipping, matches to the electron ..."  << endl;
2260	>	//       continue;
2261	>	//     }
2262	>
2263	>
2264	>	//
2265	>	// Lepton Footprint Removal
2266	>	//
2267	>	Bool_t IsLeptonFootprint = kFALSE;
2268	>	if (dr < 1.0) {
2269	>
2270	>
2271	>	//
2272	>	// Charged Iso
2273	>	//
2274	>	if (pf->Charge() != 0 && (pf->HasTrackerTrk()||pf->HasGsfTrk()) ) {
2275	>
2276	>	// Veto any PFmuon, or PFEle
2277	>	if (abs(pf->PFType()) == PFCandidate::eElectron || abs(pf->PFType()) == PFCandidate::eMuon) {
2278	>	if( ctrl.debug ) cout << "\t skipping, pf is and ele or mu .." <<endl;
2279	>	continue;
2280	>	}
2281	>
2282	>	// Footprint Veto
2283	>	if (fabs(ele->SCluster()->Eta()) > 1.479 && dr < 0.015) continue;
2284	>
2285	>	if( ctrl.debug) cout << "charged:: pt: " << pf->Pt()
2286	>	<< "\ttype: " << pf->PFType()
2287	>	<< "\ttrk: " << pf->TrackerTrk() << endl;
2288	>
2289	>	fChargedIso += pf->Pt();
2290	>	}
2291	>
2292	>	//
2293	>	// Gamma Iso
2294	>	//
2295	>	else if (abs(pf->PFType()) == PFCandidate::eGamma) {
2296	>
2297	>	if (fabs(ele->SCluster()->Eta()) > 1.479) {
2298	>	if (mithep::MathUtils::DeltaR(ele->Phi(),ele->Eta(), pf->Phi(), pf->Eta()) < 0.08) continue;
2299	>	}
2300	>	if( ctrl.debug) cout << "gamma:: " << pf->Pt() << " "
2301	>	<< dr << endl;
2302	>	// KH, add to sync
2303	>	//      if( pf->Pt() > 0.5 )
2304	>	fGammaIso += pf->Pt();
2305	>	}
2306	>
2307	>	//
2308	>	// Neutral Iso
2309	>	//
2310	>	else {
2311	>	if( ctrl.debug) cout << "neutral:: " << pf->Pt() << " "
2312	>	<< dr << endl;
2313	>	// KH, add to sync
2314	>	//      if( pf->Pt() > 0.5 )
2315	>	fNeutralHadronIso += pf->Pt();
2316	>	}
2317	>
2318	>	}
2319	>
2320	>	}
2321	>
2322	>
2323	>	double rho=0;
2324	>	if( (EffectiveAreaVersion == mithep::ElectronTools::kEleEAFall11MC) ||
2325	>	(EffectiveAreaVersion == mithep::ElectronTools::kEleEAData2011) ) {
2326	>	if (!(isnan(fPUEnergyDensity->At(0)->RhoKt6PFJetsForIso25()) ||
2327	>	isinf(fPUEnergyDensity->At(0)->RhoKt6PFJetsForIso25())))
2328	>	rho = fPUEnergyDensity->At(0)->RhoKt6PFJetsForIso25();
2329	>	// !!!!!!!!!!!!! TMP HACK FOR SYNC !!!!!!!!!!!!!!!!!!!!!
2330	>	EffectiveAreaVersion  = mithep::ElectronTools::kEleEAData2011;
2331	>	// !!!!!!!!!!!!! TMP HACK FOR SYNC !!!!!!!!!!!!!!!!!!!!!
2332	>	} else {
2333	>	if (!(isnan(fPUEnergyDensity->At(0)->RhoKt6PFJets()) ||
2334	>	isinf(fPUEnergyDensity->At(0)->RhoKt6PFJets())))
2335	>	rho = fPUEnergyDensity->At(0)->RhoKt6PFJets();
2336	>	// !!!!!!!!!!!!! TMP HACK FOR SYNC !!!!!!!!!!!!!!!!!!!!!
2337	>	EffectiveAreaVersion  = mithep::ElectronTools::kEleEAData2012;
2338	>	// !!!!!!!!!!!!! TMP HACK FOR SYNC !!!!!!!!!!!!!!!!!!!!!
2339	>	}
2340	>	if(ctrl.debug) cout << "rho: " << rho << endl;
2341	>
2342	>	double pfIso = fChargedIso + fmax(0.0,(fGammaIso + fNeutralHadronIso
2343	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaAndNeutralHadronIso04,
2344	>	ele->Eta(),EffectiveAreaVersion)));
2345	>
2346	>
2347	>	gChargedIso = fChargedIso;
2348	>	gGammaIso = fGammaIso;
2349	>	gNeutralIso = fNeutralHadronIso;
2350	>
2351	>	if( ctrl.debug ) {
2352	>	cout << "PFiso: " << pfIso
2353	>	<< "\tfChargedIso: " << fChargedIso
2354	>	<< "\tfGammaIso: " << fGammaIso
2355	>	<< "\tfNeutralHadronIso: " << fNeutralHadronIso
2356	>	<< endl;
2357	>	}
2358	>
2359	>	return pfIso;
2360	>	}
2361	>
2362	>
2363	>
2364	>	//--------------------------------------------------------------------------------------------------
2365	>	// hacked version
2366	>	float electronPFIso04(ControlFlags &ctrl,
2367	>	const mithep::Electron * ele,
2368	>	const mithep::Vertex * vtx,
2369	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
2370	>	float rho,
2371	>	mithep::ElectronTools::EElectronEffectiveAreaTarget EffectiveAreaVersion,
2372	>	vector<const mithep::Muon*> muonsToVeto,
2373	>	vector<const mithep::Electron*> electronsToVeto)
2374	>	//--------------------------------------------------------------------------------------------------
2375	>	{
2376	>
2377	>	if( ctrl.debug ) {
2378	>	cout << "electronIsoMVASelection :: muons to veto " << endl;
2379	>	for( int i=0; i<muonsToVeto.size(); i++ ) {
2380	>	const mithep::Muon * vmu = muonsToVeto[i];
2381	>	cout << "\tpt: " << vmu->Pt()
2382	>	<< "\teta: " << vmu->Eta()
2383	>	<< "\tphi: " << vmu->Phi()
2384	>	<< endl;
2385	>	}
2386	>	cout << "electronIsoMVASelection :: electrons to veto " << endl;
2387	>	for( int i=0; i<electronsToVeto.size(); i++ ) {
2388	>	const mithep::Electron * vel = electronsToVeto[i];
2389	>	cout << "\tpt: " << vel->Pt()
2390	>	<< "\teta: " << vel->Eta()
2391	>	<< "\tphi: " << vel->Phi()
2392	>	<< "\ttrk: " << vel->TrackerTrk()
2393	>	<< endl;
2394	>	}
2395	>	}
2396	>
2397	>
2398	>	//
2399	>	// final iso
2400	>	//
2401	>	Double_t fChargedIso = 0.0;
2402	>	Double_t fGammaIso = 0.0;
2403	>	Double_t fNeutralHadronIso = 0.0;
2404	>
2405	>
2406	>	//
2407	>	//Loop over PF Candidates
2408	>	//
2409	>	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
2410	>
2411	>
2412	>	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
2413	>	Double_t deta = (ele->Eta() - pf->Eta());
2414	>	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(ele->Phi()),Double_t(pf->Phi()));
2415	>	Double_t dr = mithep::MathUtils::DeltaR(ele->Phi(),ele->Eta(), pf->Phi(), pf->Eta());
2416	>
2417	>	if (dr > 0.4) continue;
2418	>	if( !(PFnoPUflag[k]) ) continue; // my PF no PU hack
2419	>
2420	>	if(ctrl.debug) {
2421	>	cout << "pf :: type: " << pf->PFType() << "\tpt: " << pf->Pt() << "\tdR: " << dr;
2422	>	if( pf->HasTrackerTrk() ) cout << "\tdZ: " << pf->TrackerTrk()->DzCorrected(*vtx)
2423	>	<< "\ttrk: " << pf->HasTrackerTrk()
2424	>	<< "\tgsf: " << pf->HasGsfTrk();
2425	>
2426	>	cout << endl;
2427	>	}
2428	>
2429	>
2430	>	//
2431	>	// sync : I don't think theyre doing this ...
2432	>	//
2433	>	//     if ( (pf->HasTrackerTrk() && (pf->TrackerTrk() == ele->TrackerTrk())) ||
2434	>	//   (pf->HasGsfTrk() && (pf->GsfTrk() == ele->GsfTrk()))) {
2435	>	//       if( ctrl.debug ) cout << "\tskipping, matches to the electron ..."  << endl;
2436	>	//       continue;
2437	>	//     }
2438	>
2439	>
2440	>	//
2441	>	// Lepton Footprint Removal
2442	>	//
2443	>	Bool_t IsLeptonFootprint = kFALSE;
2444	>	if (dr < 1.0) {
2445	>
2446	>	//
2447	>	// Check for electrons
2448	>	//
2449	>	for (Int_t q=0; q < electronsToVeto.size(); ++q) {
2450	>	const mithep::Electron *tmpele = electronsToVeto[q];
2451	>	/*
2452	>	// 4l electron
2453	>	if( pf->HasTrackerTrk()  ) {
2454	>	if( pf->TrackerTrk() == tmpele->TrackerTrk() ) {
2455	>	if( ctrl.debug) cout << "\tcharged tktrk, matches 4L ele ..." << endl;
2456	>	IsLeptonFootprint = kTRUE;
2457	>	}
2458	>	}
2459	>	if( pf->HasGsfTrk()  ) {
2460	>	if( pf->GsfTrk() == tmpele->GsfTrk() ) {
2461	>	if( ctrl.debug) cout << "\tcharged gsftrk, matches 4L ele ..." << endl;
2462	>	IsLeptonFootprint = kTRUE;
2463	>	}
2464	>	}
2465	>	*/
2466	>	// PF charged
2467	>	if (pf->Charge() != 0 && fabs(tmpele->SCluster()->Eta()) > 1.479
2468	>	&& mithep::MathUtils::DeltaR(tmpele->Phi(),tmpele->Eta(), pf->Phi(), pf->Eta()) < 0.015) {
2469	>	if( ctrl.debug) cout << "\tcharged trk, dR matches 4L ele ..." << endl;
2470	>	IsLeptonFootprint = kTRUE;
2471	>	}
2472	>	// PF gamma
2473	>	if (abs(pf->PFType()) == PFCandidate::eGamma && fabs(tmpele->SCluster()->Eta()) > 1.479
2474	>	&& mithep::MathUtils::DeltaR(tmpele->Phi(),tmpele->Eta(), pf->Phi(), pf->Eta()) < 0.08) {
2475	>	if( ctrl.debug) cout << "\tPF gamma, matches 4L ele ..." << endl;
2476	>	IsLeptonFootprint = kTRUE;
2477	>	}
2478	>	} // loop over electrons
2479	>
2480	>	/* KH - comment for sync
2481	>	//
2482	>	// Check for muons
2483	>	//
2484	>	for (Int_t q=0; q < muonsToVeto.size(); ++q) {
2485	>	const mithep::Muon *tmpmu = muonsToVeto[q];
2486	>	// 4l muon
2487	>	if( pf->HasTrackerTrk() ) {
2488	>	if (pf->TrackerTrk() == tmpmu->TrackerTrk() ){
2489	>	if( ctrl.debug) cout << "\tmatches 4L mu ..." << endl;
2490	>	IsLeptonFootprint = kTRUE;
2491	>	}
2492	>	}
2493	>	// PF charged
2494	>	if (pf->Charge() != 0 && mithep::MathUtils::DeltaR(tmpmu->Phi(),tmpmu->Eta(), pf->Phi(), pf->Eta()) < 0.01) {
2495	>	if( ctrl.debug) cout << "\tcharged trk, dR matches 4L mu ..." << endl;
2496	>	IsLeptonFootprint = kTRUE;
2497	>	}
2498	>	} // loop over muons
2499	>	*/
2500	>
2501	>	if (IsLeptonFootprint)
2502	>	continue;
2503	>
2504	>	//
2505	>	// Charged Iso
2506	>	//
2507	>	if (pf->Charge() != 0 && (pf->HasTrackerTrk()||pf->HasGsfTrk()) ) {
2508	>
2509	>	//       if( pf->HasTrackerTrk() )
2510	>	//      if (abs(pf->TrackerTrk()->DzCorrected(vtx)) > 0.2) continue;
2511	>	//       if( pf->HasGsfTrk() )
2512	>	//      if (abs(pf->GsfTrk()->DzCorrected(vtx)) > 0.2) continue;
2513	>
2514	>	// Veto any PFmuon, or PFEle
2515	>	if (abs(pf->PFType()) == PFCandidate::eElectron || abs(pf->PFType()) == PFCandidate::eMuon) {
2516	>	if( ctrl.debug ) cout << "\t skipping, pf is and ele or mu .." <<endl;
2517	>	continue;
2518	>	}
2519	>
2520	>	// Footprint Veto
2521	>	if (fabs(ele->SCluster()->Eta()) > 1.479 && dr < 0.015) continue;
2522	>
2523	>	if( ctrl.debug) cout << "charged:: pt: " << pf->Pt()
2524	>	<< "\ttype: " << pf->PFType()
2525	>	<< "\ttrk: " << pf->TrackerTrk() << endl;
2526	>
2527	>	fChargedIso += pf->Pt();
2528	>	}
2529	>
2530	>	//
2531	>	// Gamma Iso
2532	>	//
2533	>	else if (abs(pf->PFType()) == PFCandidate::eGamma) {
2534	>
2535	>	if (fabs(ele->SCluster()->Eta()) > 1.479) {
2536	>	if (mithep::MathUtils::DeltaR(ele->Phi(),ele->Eta(), pf->Phi(), pf->Eta()) < 0.08) continue;
2537	>	}
2538	>	if( ctrl.debug) cout << "gamma:: " << pf->Pt() << " "
2539	>	<< dr << endl;
2540	>	// KH, add to sync
2541	>	//      if( pf->Pt() > 0.5 )
2542	>	fGammaIso += pf->Pt();
2543	>	}
2544	>
2545	>	//
2546	>	// Neutral Iso
2547	>	//
2548	>	else {
2549	>	if( ctrl.debug) cout << "neutral:: " << pf->Pt() << " "
2550	>	<< dr << endl;
2551	>	// KH, add to sync
2552	>	//      if( pf->Pt() > 0.5 )
2553	>	fNeutralHadronIso += pf->Pt();
2554	>	}
2555	>
2556	>	}
2557	>
2558	>	}
2559	>
2560	>	//   double rho = 0;
2561	>	//   if (!(isnan(fPUEnergyDensity->At(0)->Rho()) || isinf(fPUEnergyDensity->At(0)->Rho())))
2562	>	//     rho = fPUEnergyDensity->At(0)->Rho();
2563	>
2564	>	// WARNING!!!!
2565	>	// hardcode for sync ...
2566	>	EffectiveAreaVersion = eleT.kEleEAData2011;
2567	>	// WARNING!!!!
2568	>
2569	>
2570	>	double pfIso = fChargedIso + fmax(0.0,(fGammaIso + fNeutralHadronIso
2571	>	-rho*eleT.ElectronEffectiveArea(eleT.kEleGammaAndNeutralHadronIso04,
2572	>	ele->Eta(),EffectiveAreaVersion)));
2573	>
2574	>
2575	>	gChargedIso = fChargedIso;
2576	>	gGammaIso = fGammaIso;
2577	>	gNeutralIso = fNeutralHadronIso;
2578	>	return pfIso;
2579	>	}
2580	>
2581	>
2582	>	//--------------------------------------------------------------------------------------------------
2583	>	SelectionStatus electronReferenceIsoSelection(ControlFlags &ctrl,
2584	>	const mithep::Electron * ele,
2585	>	const mithep::Vertex * vtx,
2586	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
2587	>	const mithep::Array<mithep::PileupEnergyDensity> * fPUEnergyDensity,
2588	>	mithep::ElectronTools::EElectronEffectiveAreaTarget EffectiveAreaVersion,
2589	>	vector<const mithep::PFCandidate*> photonsToVeto)
2590	>	//--------------------------------------------------------------------------------------------------
2591	>	{
2592	>
2593	>	SelectionStatus status;
2594	>
2595	>	double pfIso = electronPFIso04( ctrl, ele, vtx, fPFCandidates, fPUEnergyDensity,
2596	>	EffectiveAreaVersion, photonsToVeto);
2597	>	//  cout << "--------------> setting electron isoPF04 to " << pfIso << endl;
2598	>	status.isoPF04 = pfIso;
2599	>	status.chisoPF04 = gChargedIso;
2600	>	status.gaisoPF04 = gGammaIso;
2601	>	status.neisoPF04 = gNeutralIso;
2602	>
2603	>	bool pass = false;
2604	>	if( (pfIso/ele->Pt()) < ELECTRON_REFERENCE_PFISO_CUT ) pass = true;
2605	>
2606	>	if( pass ) {
2607	>	status.orStatus(SelectionStatus::LOOSEISO);
2608	>	status.orStatus(SelectionStatus::TIGHTISO);
2609	>	}
2610	>	if(ctrl.debug) {
2611	>	cout << "el relpfIso: " << pfIso/ele->Pt() << endl;
2612	>	cout << "returning status : " << hex << status.getStatus() << dec << endl;
2613	>	}
2614	>	return status;
2615	>
2616	>	}
2617	>
2618	>
2619	>	//--------------------------------------------------------------------------------------------------
2620	>	// hacked version
2621	>	SelectionStatus electronReferenceIsoSelection(ControlFlags &ctrl,
2622	>	const mithep::Electron * ele,
2623	>	const mithep::Vertex * vtx,
2624	>	const mithep::Array<mithep::PFCandidate> * fPFCandidates,
2625	>	float rho,
2626	>	mithep::ElectronTools::EElectronEffectiveAreaTarget EffectiveAreaVersion,
2627	>	vector<const mithep::Muon*> muonsToVeto,
2628	>	vector<const mithep::Electron*> electronsToVeto)
2629	>	//--------------------------------------------------------------------------------------------------
2630	>	{
2631	>
2632	>	SelectionStatus status;
2633	>
2634	>	double pfIso = electronPFIso04( ctrl, ele, vtx, fPFCandidates, rho,
2635	>	EffectiveAreaVersion, muonsToVeto ,electronsToVeto );
2636	>	status.isoPF04 = pfIso;
2637	>	status.chisoPF04 = gChargedIso;
2638	>	status.gaisoPF04 = gGammaIso;
2639	>	status.neisoPF04 = gNeutralIso;
2640	>	bool pass = false;
2641	>	if( (pfIso/ele->Pt()) < ELECTRON_REFERENCE_PFISO_CUT ) pass = true;
2642	>
2643	>	if( pass ) {
2644	>	status.orStatus(SelectionStatus::LOOSEISO);
2645	>	status.orStatus(SelectionStatus::TIGHTISO);
2646		}
2647		if(ctrl.debug) cout << "returning status : " << hex << status.getStatus() << dec << endl;
2648		return status;
2649
2650		}
2651	+
2652	+
2653	+
2654	+	//--------------------------------------------------------------------------------------------------
2655	+	double  dbetaCorrectedIsoDr03(ControlFlags & ctrl,
2656	+	const mithep::PFCandidate * photon,
2657	+	const mithep::Muon * lepton,
2658	+	const mithep::Array<mithep::PFCandidate> * fPFCandidates)
2659	+	//--------------------------------------------------------------------------------------------------
2660	+	{
2661	+
2662	+	//
2663	+	// final iso
2664	+	//
2665	+	Double_t fChargedIso  = 0.0;
2666	+	Double_t fGammaIso  = 0.0;
2667	+	Double_t fNeutralHadronIso  = 0.0;
2668	+	Double_t fpfPU  = 0.0;
2669	+
2670	+	//
2671	+	// Loop over PF Candidates
2672	+	//
2673	+	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
2674	+
2675	+	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
2676	+
2677	+	Double_t deta = (photon->Eta() - pf->Eta());
2678	+	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(photon->Phi()),Double_t(pf->Phi()));
2679	+	Double_t dr = mithep::MathUtils::DeltaR(photon->Phi(),photon->Eta(), pf->Phi(), pf->Eta());
2680	+	if (dr > 0.3) continue;
2681	+
2682	+	if( !(PFnoPUflag[k]) && pf->Charge() != 0 ) {
2683	+	if( pf->Pt() >= 0.2 && dr > 0.01 )
2684	+	fpfPU += pf->Pt();
2685	+	continue;
2686	+	}
2687	+
2688	+	//
2689	+	// skip this photon
2690	+	//
2691	+	if( abs(pf->PFType()) == mithep::PFCandidate::eGamma &&
2692	+	pf->Et() == photon->Et() ) continue;
2693	+
2694	+
2695	+	//
2696	+	// Charged Iso
2697	+	//
2698	+	if (pf->Charge() != 0 ) {
2699	+	if( dr > 0.01 && pf->Pt() >= 0.2 &&
2700	+	!(pf->TrackerTrk() == lepton->TrackerTrk()) )
2701	+	fChargedIso += pf->Pt();
2702	+	}
2703	+
2704	+	//
2705	+	// Gamma Iso
2706	+	//
2707	+	else if (abs(pf->PFType()) == mithep::PFCandidate::eGamma) {
2708	+	if( pf->Pt() > 0.5 && dr > 0.01)
2709	+	fGammaIso += pf->Pt();
2710	+	}
2711	+
2712	+	//
2713	+	// Other Neutrals
2714	+	//
2715	+	else {
2716	+	if( pf->Pt() > 0.5 && dr > 0.01)
2717	+	fNeutralHadronIso += pf->Pt();
2718	+	}
2719	+
2720	+	}
2721	+
2722	+	if( ctrl.debug ) {
2723	+	cout << "photon dbetaIso :: " << endl;
2724	+	cout << "\tfChargedIso: " << fChargedIso
2725	+	<< "\tfGammaIso: " << fGammaIso
2726	+	<< "\tfNeutralHadronIso: " << fNeutralHadronIso
2727	+	<< "\tfpfPU: " << fpfPU
2728	+	<< endl;
2729	+	}
2730	+	double pfIso = fChargedIso + fGammaIso + fNeutralHadronIso - 0.5*fpfPU;
2731	+	return pfIso/photon->Pt();
2732	+	}
2733	+
2734	+
2735	+	//--------------------------------------------------------------------------------------------------
2736	+	double  dbetaCorrectedIsoDr03(ControlFlags & ctrl,
2737	+	const mithep::PFCandidate * photon,
2738	+	const mithep::Electron * lepton,
2739	+	const mithep::Array<mithep::PFCandidate> * fPFCandidates)
2740	+	//--------------------------------------------------------------------------------------------------
2741	+	{
2742	+
2743	+	//
2744	+	// final iso
2745	+	//
2746	+	Double_t fChargedIso  = 0.0;
2747	+	Double_t fGammaIso  = 0.0;
2748	+	Double_t fNeutralHadronIso  = 0.0;
2749	+	Double_t fpfPU  = 0.0;
2750	+
2751	+	//
2752	+	// Loop over PF Candidates
2753	+	//
2754	+	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
2755	+
2756	+	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
2757	+
2758	+	Double_t deta = (photon->Eta() - pf->Eta());
2759	+	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(photon->Phi()),Double_t(pf->Phi()));
2760	+	Double_t dr = mithep::MathUtils::DeltaR(photon->Phi(),photon->Eta(), pf->Phi(), pf->Eta());
2761	+	if (dr > 0.3) continue;
2762	+
2763	+	if( !(PFnoPUflag[k]) && pf->Charge() != 0 ) {
2764	+	if( pf->Pt() >= 0.2 && dr > 0.01 )
2765	+	fpfPU += pf->Pt();
2766	+	continue;
2767	+	}
2768	+
2769	+	//
2770	+	// skip this photon
2771	+	//
2772	+	if( abs(pf->PFType()) == mithep::PFCandidate::eGamma &&
2773	+	pf->Et() == photon->Et() ) continue;
2774	+
2775	+
2776	+	//
2777	+	// Charged Iso
2778	+	//
2779	+	if (pf->Charge() != 0 ) {
2780	+	if( dr > 0.01 && pf->Pt() >= 0.2 &&
2781	+	!(pf->TrackerTrk() == lepton->TrackerTrk()) )
2782	+	fChargedIso += pf->Pt();
2783	+	}
2784	+
2785	+	//
2786	+	// Gamma Iso
2787	+	//
2788	+	else if (abs(pf->PFType()) == mithep::PFCandidate::eGamma) {
2789	+	if( pf->Pt() > 0.5 && dr > 0.01)
2790	+	fGammaIso += pf->Pt();
2791	+	}
2792	+
2793	+	//
2794	+	// Other Neutrals
2795	+	//
2796	+	else {
2797	+	if( pf->Pt() > 0.5 && dr > 0.01)
2798	+	fNeutralHadronIso += pf->Pt();
2799	+	}
2800	+
2801	+	}
2802	+
2803	+	if( ctrl.debug ) {
2804	+	cout << "photon dbetaIso :: " << endl;
2805	+	cout << "\tfChargedIso: " << fChargedIso
2806	+	<< "\tfGammaIso: " << fGammaIso
2807	+	<< "\tfNeutralHadronIso: " << fNeutralHadronIso
2808	+	<< "\tfpfPU: " << fpfPU
2809	+	<< endl;
2810	+	}
2811	+	double pfIso = fChargedIso + fGammaIso + fNeutralHadronIso - 0.5*fpfPU;
2812	+	return pfIso/photon->Pt();
2813	+	}
2814	+
2815	+
2816	+
2817	+
2818	+
2819	+	//--------------------------------------------------------------------------------------------------
2820	+	double  nonCorrectedIsoDr03(ControlFlags & ctrl,
2821	+	const mithep::PFCandidate * photon,
2822	+	const mithep::Muon * lepton,
2823	+	const mithep::Array<mithep::PFCandidate> * fPFCandidates)
2824	+	//--------------------------------------------------------------------------------------------------
2825	+	{
2826	+
2827	+	//
2828	+	// final iso
2829	+	//
2830	+	Double_t fChargedIso  = 0.0;
2831	+	Double_t fGammaIso  = 0.0;
2832	+	Double_t fNeutralHadronIso  = 0.0;
2833	+	Double_t fpfPU  = 0.0;
2834	+
2835	+	//
2836	+	// Loop over PF Candidates
2837	+	//
2838	+	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
2839	+
2840	+	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
2841	+
2842	+	Double_t deta = (photon->Eta() - pf->Eta());
2843	+	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(photon->Phi()),Double_t(pf->Phi()));
2844	+	Double_t dr = mithep::MathUtils::DeltaR(photon->Phi(),photon->Eta(), pf->Phi(), pf->Eta());
2845	+	if (dr > 0.3) continue;
2846	+
2847	+	if( !(PFnoPUflag[k]) && pf->Charge() != 0 ) {
2848	+	if( pf->Pt() >= 0.2 && dr > 0.01 )
2849	+	fpfPU += pf->Pt();
2850	+	continue;
2851	+	}
2852	+
2853	+	//
2854	+	// skip this photon
2855	+	//
2856	+	if( abs(pf->PFType()) == mithep::PFCandidate::eGamma &&
2857	+	pf->Et() == photon->Et() ) continue;
2858	+
2859	+
2860	+	//
2861	+	// Charged Iso
2862	+	//
2863	+	if (pf->Charge() != 0 ) {
2864	+	if( dr > 0.01 && pf->Pt() >= 0.2 &&
2865	+	!(pf->TrackerTrk() == lepton->TrackerTrk()) )
2866	+	fChargedIso += pf->Pt();
2867	+	}
2868	+
2869	+	//
2870	+	// Gamma Iso
2871	+	//
2872	+	else if (abs(pf->PFType()) == mithep::PFCandidate::eGamma) {
2873	+	if( pf->Pt() > 0.5 && dr > 0.01)
2874	+	fGammaIso += pf->Pt();
2875	+	}
2876	+
2877	+	//
2878	+	// Other Neutrals
2879	+	//
2880	+	else {
2881	+	if( pf->Pt() > 0.5 && dr > 0.01)
2882	+	fNeutralHadronIso += pf->Pt();
2883	+	}
2884	+
2885	+	}
2886	+
2887	+	if( ctrl.debug ) {
2888	+	cout << "photon dbetaIso :: " << endl;
2889	+	cout << "\tfChargedIso: " << fChargedIso
2890	+	<< "\tfGammaIso: " << fGammaIso
2891	+	<< "\tfNeutralHadronIso: " << fNeutralHadronIso
2892	+	<< "\tfpfPU: " << fpfPU
2893	+	<< endl;
2894	+	}
2895	+	double pfIso = fChargedIso + fGammaIso + fNeutralHadronIso + fpfPU;
2896	+	return pfIso/photon->Pt();
2897	+	}
2898	+
2899	+
2900	+
2901	+	//--------------------------------------------------------------------------------------------------
2902	+	double  nonCorrectedIsoDr03(ControlFlags & ctrl,
2903	+	const mithep::PFCandidate * photon,
2904	+	const mithep::Electron * lepton,
2905	+	const mithep::Array<mithep::PFCandidate> * fPFCandidates)
2906	+	//--------------------------------------------------------------------------------------------------
2907	+	{
2908	+
2909	+	//
2910	+	// final iso
2911	+	//
2912	+	Double_t fChargedIso  = 0.0;
2913	+	Double_t fGammaIso  = 0.0;
2914	+	Double_t fNeutralHadronIso  = 0.0;
2915	+	Double_t fpfPU  = 0.0;
2916	+
2917	+	//
2918	+	// Loop over PF Candidates
2919	+	//
2920	+	for(int k=0; k<fPFCandidates->GetEntries(); ++k) {
2921	+
2922	+	const mithep::PFCandidate *pf = (mithep::PFCandidate*)((*fPFCandidates)[k]);
2923	+
2924	+	Double_t deta = (photon->Eta() - pf->Eta());
2925	+	Double_t dphi = mithep::MathUtils::DeltaPhi(Double_t(photon->Phi()),Double_t(pf->Phi()));
2926	+	Double_t dr = mithep::MathUtils::DeltaR(photon->Phi(),photon->Eta(), pf->Phi(), pf->Eta());
2927	+	if (dr > 0.3) continue;
2928	+
2929	+	if( !(PFnoPUflag[k]) && pf->Charge() != 0 ) {
2930	+	if( pf->Pt() >= 0.2 && dr > 0.01 )
2931	+	fpfPU += pf->Pt();
2932	+	continue;
2933	+	}
2934	+
2935	+	//
2936	+	// skip this photon
2937	+	//
2938	+	if( abs(pf->PFType()) == mithep::PFCandidate::eGamma &&
2939	+	pf->Et() == photon->Et() ) continue;
2940	+
2941	+
2942	+	//
2943	+	// Charged Iso
2944	+	//
2945	+	if (pf->Charge() != 0 ) {
2946	+	if( dr > 0.01 && pf->Pt() >= 0.2 &&
2947	+	!(pf->TrackerTrk() == lepton->TrackerTrk()) )
2948	+	fChargedIso += pf->Pt();
2949	+	}
2950	+
2951	+	//
2952	+	// Gamma Iso
2953	+	//
2954	+	else if (abs(pf->PFType()) == mithep::PFCandidate::eGamma) {
2955	+	if( pf->Pt() > 0.5 && dr > 0.01)
2956	+	fGammaIso += pf->Pt();
2957	+	}
2958	+
2959	+	//
2960	+	// Other Neutrals
2961	+	//
2962	+	else {
2963	+	if( pf->Pt() > 0.5 && dr > 0.01)
2964	+	fNeutralHadronIso += pf->Pt();
2965	+	}
2966	+
2967	+	}
2968	+
2969	+	if( ctrl.debug ) {
2970	+	cout << "photon dbetaIso :: " << endl;
2971	+	cout << "\tfChargedIso: " << fChargedIso
2972	+	<< "\tfGammaIso: " << fGammaIso
2973	+	<< "\tfNeutralHadronIso: " << fNeutralHadronIso
2974	+	<< "\tfpfPU: " << fpfPU
2975	+	<< endl;
2976	+	}
2977	+	double pfIso = fChargedIso + fGammaIso + fNeutralHadronIso + fpfPU;
2978	+	return pfIso/photon->Pt();
2979	+	}
2980	+
2981	+
2982	+

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