| Block: Event | |||
|---|---|---|---|
| root name | type | description | orange name |
| Runnr | Int_t | RUN number | Runnr |
| Eventnr | Int_t | EVENT number | Eventnr |
| Weight | Float_t | EVENT Weight | Weight |
| Block: TakeInfo | |||
| root name | type | description | orange name |
| Evtake | Int_t | 0/1 - rejected/accepted by evtake21 | Evtake |
| Evtake_iwant | Int_t | 0/1/2 - iwant value from evtake21 | Evtake_iwant |
| Fmutake | Int_t | 0/1/<1 - rejected/accepted/doubtful by Fmutake 2 - do not use fmu trigger |
Fmutake |
| Mbtake | Int_t | 0/1/<1 - rejected/accepted/doubtful by Mbtake | Mbtake |
| Itrig | Int_t | used to store various trigger and correction flags = ITRIG*100000 + IRCALIR ITRIG: flag extracted from trigger version string (runlist-200X.txt from Yuji's GFLT web page) ITRIG = 1: HIGH or HIGH_XX (XX = FL, ISR, ..., 07 only) = "HIGH" Funnel version ITRIG = 2: LOW or NOTTV or LOW_XX (XX = FL, ISR, ..., 07 only) or FL_LER (07 only) or ***??? FL_ONLY (07 only) = "LOW" Funnel version ITRIG = 3: LTRKV (03/04 only) = "LTRKV" Funnel version ITRIG = 4: SIGTOT_FL (07 only, mainly LER) do not use with standard funnel version ITRIG = 5: SIGMATOT (07 only, mainly HER) do not use with standard funnel version IRCALIR = 1 for runs with RCALIR problem = 0 otherwise (see talk A.G., NC task force) |
Itrig |
| Block: Trigger | |||
| root name | type | description | orange name |
| Fltw[2] | Int_t | FLT before prescale (slots 0-63) = O1SubT_Subtrg(1:2) | Fltw(2) |
| Fltpsw[2] | Int_t | FLT after prescale (slots 0-63) = O1EvnT_Subtrg(1:2) | Fltpsw(2) |
| Fltfl | Int_t | fast clear bits = O1Evnt_FLTf1 | Fltfl |
| Gslt_global | Int_t |
SLT Global word (32 bits) = O2DEC_Triggertype ( GSLT_global & (1 << 2) ) true if event was accepted by veto filter ( GSLT_global & (1 << (k-1)) ) (k = 10-12) passthrough for 95-97 |
Gslt_global |
| Sltw[6] | Int_t | SLT 1st-6th word (32 bits each) after prescale ( Sltw[0] & (1 << (k-1)) ) (= true if event was accepted) <=2000 k = 1 -10 : HFL01 - HFL10 <=2000 k = 13-17 : MUO01 - MUO05 > 2000 k = 1 -21 : HFL01 - HFL21 > 2000 k = 22-29 : MUO01 - MUO08 ( Sltw[1] & (1 << (k-1)) ) Vetos k = 1 : Empty k = 2 : RCAL k = 3 : UP-DN k = 4 : Spark k = 5 : F-RCAL k = 6 : E-Pz k = 7 : FCAL k = 8 : Spark2 k = 9 : F-RCAL2 ( Sltw[2] & (1 << (k-1)) ) k = 1 -32 : Passthrough ( Sltw[3] & (1 << (k-1)) ) k = 1 -29 : GTT01 - GTT29 ( Sltw[4] & (1 << (k-1)) ) k = 1 -12 : SPP01 - SPP12 k = 13-19 : HPP01 - HPP07 k = 25-26 : SPP13 - SPP14 ( Sltw[5] & (1 << (k-1)) ) k = 1 - 9 : DIS01 - DIS09 k = 13-28 : EXO01 - EXO16 |
Sltw(6) |
| Sltupw[6] | Int_t | SLT 1st-6th word before prescale | Sltupw(6) |
| Tltw[15] | Int_t |
TLT first to 15th words. ( Tltw[0] & (1 << (k-1)) ) k = 2 : CAL spark veto k = 7 : CAL time veto k = 8 : Cosmic muon veto k = 9 : Muon with track through interaction region k = 10 : Halo muon veto k = 13 : No tracking because too many SL5 hits k = 14 : No tracking due to VCTRAK error k = 20 : CAL Transmission Error k = 21 : GSLT passthrough event k = 22 : TLT passthrough event k = 23 : selected by TLT sampling filter ( Tltw[j-1] & (1 << (k-1)) ) filter j bit k fired (k <= 16) filter j bit k-16 fired after prescale (k > 16) j = 3 : SPP k = 1-16 j = 4 : DIS k = 1-16 j = 5 : HPP k = 1-16 j = 6 : EXO k = 1-16 j = 7 : MUO j = 8 : VTX j = 9 : HFM k = 1-16, (SAP for <=2000) j = 10 : HFL k = 1-16 j = 11 : DIS k = 17-32 j = 12 : HPP k = 17-32 j = 13 : EXO k = 17-32 j = 14 : HFL k = 17-32 j = 15 : HFM k = 17-32 |
Tltw(15) |
| Dstw[4] | Int_t | DST bits 0 to 127 ( Dstw[(Int_t)k/32] & (1 << (k%32)) ) true if event was accepted by k-th bit |
Dstw(4) |
| Fltpsfcw[2] | Int_t | FLT bits after prescale, after fast clear= O1EvnT_Subtrg(3:4) | Fltpsfcw(2) |
| Block: GFLT_onl | |||
| root name | type | description | orange name |
| Flt_cal_e | Int_t | CAL_E (online/funnel info) | Flt_cal_e |
| Flt_cal_emc | Int_t | CAL_EMC_E | Flt_cal_emc |
| Flt_cal_et_fbp | Int_t | CAL_ET_FBP | Flt_cal_et_fbp |
| Flt_cal_fbp_ovf | Int_t | CAL_FBP_OVF | Flt_cal_fbp_ovf |
| Flt_bcal_emc | Int_t | BCAL_EMC_E | Flt_bcal_emc |
| Flt_rcal_emc | Int_t | RCAL_EMC_E | Flt_rcal_emc |
| Flt_remcth | Int_t | REMCth | Flt_remcth |
| Flt_fcal_tote | Int_t | FCAL_TOTAL_E | Flt_fcal_tote |
| Flt_trk_cl | Int_t | TRK CLASS | Flt_trk_cl |
| Flt_trk_mlt | Int_t | TRK multiplicity | Flt_trk_mlt |
| Flt_lumi_ee | Int_t | LUMI_EE | Flt_lumi_ee |
| Flt_lumi_eg | Int_t | LUMI_EG | Flt_lumi_eg |
| Flt_et | Int_t | CAL_Et | Flt_et |
| Flt_emiss | Int_t | CAL_Emiss | Flt_emiss |
| Flt_fcal_ebp | Int_t | FCAL_EBP | Flt_fcal_ebp |
| Flt_fcal_oebp | Int_t | FCAL_E_OUT_BP | Flt_fcal_oebp |
| Flt_risoe | Int_t | OR of RCAL04, 05, 06, 07 isoe | Flt_risoe |
| Flt_risoe4 | Int_t | RCAL04_isol_e | Flt_risoe4 |
| Flt_risoe5 | Int_t | RCAL05_isol_e | Flt_risoe5 |
| Flt_risoe6 | Int_t | RCAL06_isol_e | Flt_risoe6 |
| Flt_risoe7 | Int_t | RCAL07_isol_e | Flt_risoe7 |
| Flt_bisoe | Int_t | OR of BCAL08-15 isoe | Flt_bisoe |
| Flt_fisoe | Int_t | OR of FCAL00-03 isoe | Flt_fisoe |
| Flt_gtrk | Int_t | FLT good track = (flag1 or flag2 or flag3) | Flt_gtrk |
| Flt_trk_vmult | Int_t | FLT vertex-fitted track multiplicity | Flt_trk_vmult |
| Block: GSLT_onl | |||
| root name | type | description | orange name |
| Slt_et | Float_t | Et (online/funnel info) | Slt_et |
| Slt_et_1ir | Float_t | Et in 1st FCAL IR | Slt_et_1ir |
| Slt_et_2ir | Float_t | Et in 2nd FCAL IR | Slt_et_2ir |
| Slt_emnpz | Float_t | E-Pz | Slt_emnpz |
| Slt_pzove | Float_t | Pz/E | Slt_pzove |
| Slt_vtx_z | Float_t | VTX_Z | Slt_vtx_z |
| Slt_slf | Int_t | slf - number of tracks | Slt_slf |
| Slt_slu | Int_t | slu - number of "vertex" tracks | Slt_slu |
| Slt_pt12 | Float_t | SltPt(1)+SltPt(2) (Sum_Pt of 2 highest Pt tracks) | Slt_pt12 |
| Slt_etotfcal | Float_t | CCGSUM_ETotalFCal | Slt_etotfcal |
| Slt_etotbcal | Float_t | CCGSUM_ETotalBCal | Slt_etotbcal |
| Slt_etotrcal | Float_t | CCGSUM_ETotalRCal | Slt_etotrcal |
| Slt_etotemc | Float_t | CCGSUM_ETotalEmc | Slt_etotemc |
| Slt_etransemc | Float_t | CCGSUM_ETransEmc | Slt_etransemc |
| Slt_pxemc | Float_t | CCGSUM_PxEmc | Slt_pxemc |
| Slt_pyemc | Float_t | CCGSUM_PyEmc | Slt_pyemc |
| Slt_pzemc | Float_t | CCGSUM_PzEmc | Slt_pzemc |
| Slt_etothac | Float_t | CCGSUM_ETotalHac | Slt_etothac |
| Slt_etranshac | Float_t | CCGSUM_EtransHac | Slt_etranshac |
| Slt_pxhac | Float_t | CCGSUM_PxHac | Slt_pxhac |
| Slt_pyhac | Float_t | CCGSUM_PyHac | Slt_pyhac |
| Slt_pzhac | Float_t | CCGSUM_PzHac | Slt_pzhac |
| Slt_etot | Float_t | CCGetote + CCGetoth | Slt_etot |
| Slt_etmis | Float_t | sqrt((CCGpxemc+CCGpxhac)*(CCGpxemc+CCGpxhac) +(CCGpyemc+CCGpyhac)*(CCGpyemc+CCGpyhac)) | Slt_etmis |
| Slt_pxbp | Float_t | CCGpxemc+CCGpxhac-CCGSUM_FCalBPpxEmc-CCGSUM_FCalBPpxHac | Slt_pxbp |
| Slt_pybp | Float_t | CCGpyemc+CCGpyhac-CCGSUM_FCalBPpyEmc-CCGSUM_FCalBPpyHac | Slt_pybp |
| Slt_etmbp | Float_t | sqrt(CCGpxBP*CCGpxBP+CCGpyBP*CCGpyBP) | Slt_etmbp |
| Slt_ebp | Float_t | CCGSUM_FCalBPEEmc+CCGSUM_FCalBPEHac | Slt_ebp |
| Slt_eremc | Float_t | CCGSUM_ETotalREmc | Slt_eremc |
| Slt_erhac | Float_t | CCGSUM_ETotalRcal - CCGSUM_ETotalREmc | Slt_erhac |
| Slt_ebemc | Float_t | CCGSUM_ETotalBEmc | Slt_ebemc |
| Slt_ebhac | Float_t | CCGSUM_ETotalBcal - CCGSUM_ETotalBEmc | Slt_ebhac |
| Slt_efemc | Float_t | CCGSUM_ETotalFEmc | Slt_efemc |
| Slt_efhac | Float_t | CCGSUM_ETotalFcal - CCGSUM_ETotalFEmc | Slt_efhac |
| Slt_etfbp | Float_t | CCGSUM_FcalBPEtemc + CCGSUM_FcalBPEthac | Slt_etfbp |
| Slt_btime | Float_t | CCGSUM_BcalTime | Slt_btime |
| Slt_gtime | Float_t | CCGSUM_Globtime | Slt_gtime |
| Slt_gnpmt | Float_t | CCGSUM_NoPMsGlobTi | Slt_gnpmt |
| Slt_bnpmt | Float_t | CCGSUM_NoPMsBCalTi | Slt_bnpmt |
| Slt_noclus | Float_t | CCGSUM_NoOfClusters | Slt_noclus |
| Slt_eemcclus | Float_t | CCELEC_EmcClusEnergy | Slt_eemcclus |
| Block: CTDFLT | |||
| root name | type | description | orange name |
| Otrkclass | Int_t | CTD-FLT class | Otrkclass |
| Otrkmult | Int_t | CTD-FLT track multiplicity | Otrkmult |
| Otrkvmult | Int_t | CTD-FLT vertex track multiplicity | Otrkvmult |
| Block: fltrig | |||
| root name | type | description | orange name |
| Sltcal_etotemc | Float_t | CCGSUM_ETotalEmc | Sltcal_etotemc |
| Sltcal_etothac | Float_t | CCGSUM_ETotalHac | Sltcal_etothac |
| Sltcal_etotremc | Float_t | CCGSUM_ETotalREmc | Sltcal_etotremc |
| Sltcal_etotbemc | Float_t | CCGSUM_ETotalBEmc | Sltcal_etotbemc |
| Sltcal_etotfemc | Float_t | CCGSUM_ETotalFEmc | Sltcal_etotfemc |
| Sltcal_etotfcal | Float_t | CCGSUM_ETotalFCal | Sltcal_etotfcal |
| Sltelc_fl | Int_t | CouTab(CCELEC) (=0 or 1) | Sltelc_fl |
| Sltelc_emcthe | Float_t | CCELEC_EmcClusTheta | Sltelc_emcthe |
| Sltelc_emcphi | Float_t | CCELEC_EmcClusPhi | Sltelc_emcphi |
| Sltelc_emcene | Float_t | CCELEC_EmcClusEnergy | Sltelc_emcene |
| Sltelc_hacene | Float_t | CCELEC_HacClusEnergy | Sltelc_hacene |
| Gttenv_ctdsize | Int_t | Gttenv_ctdsize | |
| Tlev_evtype | Int_t | TLTEVT_Evtype | Tlev_evtype |
| Tlev_eminpz | Float_t | TLTEVT_Eminpz | Tlev_eminpz |
| Block: BAC | |||
| root name | type | description | orange name |
| Bac_etot | Float_t | energy in BAC (total) | Bac_etot |
| Bac_etot_o2r | Float_t | energy in BAC(outside first2FBAC | Bac_etot_o2r |
| Bac_npad | Int_t | number of fired pad towers in BAC) | Bac_npad |
| Bac_npad_o2r | Int_t | number of fired pad towers in BAC (outside first 2 FBAC rings) |
Bac_npad_o2r |
| Bac_et | Float_t | BAC et (outside first 2 FBAC rings) | Bac_et |
| Bac_px | Float_t | BAC px (outside first 2 FBAC rings) | Bac_px |
| Bac_py | Float_t | BAC py (outside first 2 FBAC rings) | Bac_py |
| Nbacmu | Int_t | Number of muon candidates found | Nbacmu |
| Mubac_xyz[NBACMU][3] | Float_t | position in HERA frame | Mubac_xyz(3,NBACMU) |
| Mubac_dxyz[NBACMU][3] | Float_t | error on position | Mubac_dxyz(3,NBACMU) |
| Mubac_cos[NBACMU][3] | Float_t | direction cosines | Mubac_cos(3,NBACMU) |
| Mubac_dcos[NBACMU][3] | Float_t | errors on direction (dummy now) | Mubac_dcos(3,NBACMU) |
| Mubac_eloss[NBACMU] | Float_t | muon energy loss in BAC (-1. for digital readout) |
Mubac_eloss(NBACMU) |
| Mubac_deloss[NBACMU] | Float_t | error on energy loss | Mubac_deloss(NBACMU) |
| Mubac_unit[NBACMU] | Int_t | part in BAC: 1 - barrel 2 - forecap 3 - rearcap) |
Mubac_unit(NBACMU) |
| Mubac_dim[NBACMU] | Int_t | kind of muon deposit: 2 - two dimensional 3 - three dimensional |
Mubac_dim(NBACMU) |
| Mubac_quality[NBACMU] | Int_t | quality of muon signal: 1 - strong candidate 0 - weak candidate |
Mubac_quality(NBACMU) |
| Ahit[NBACMU] | Int_t | set to 1 for hit readout | Ahit(NBACMU) |
| Pad[NBACMU] | Int_t | set to 1 for Pad readout | Pad(NBACMU) |
| Block: BadPMT | |||
| root name | type | description | orange name |
| Nbadpmt | Int_t | number of bad PMTs repaired | Nbadpmt |
| Badcell[nBadPMT] | Int_t | cell numbers containing repaired PMTs | Badcell(nBadPMT) |
| Badside[nBadPMT] | Int_t | pmt number within the cell | Badside(nBadPMT) |
| Ebefore[nBadPMT] | Float_t | cell energy before the repair | Ebefore(nBadPMT) |
| Eafter[nBadPMT] | Float_t | cell energy after the repair | Eafter(nBadPMT) |
| Block: Bits | |||
| root name | type | description | orange name |
| Bitword[2] | Int_t |
Bit info ( Bitword[0] & (1 << (k-1)) ) k = 1 : evtake k = 2 : exotake k = 3 : xsectake k = 4 : BunchNr,1: proton bunch filled k = 5 : BunchNr,2: e+/e- bunch filled k = 6-7 : 0 k = 8 : FMuon1 k = 9-11 : 0 k = 12 : qedcbit k = 13 : rhobit k = 14 : gTrk1,1 k = 15 : gTrk1,2 k = 16 : FJetA k = 17 : FJetB k = 18 : FJetC k = 19 : FJetD k = 20-32 : 0 Bitword[1] = 0 |
Bitword(2) |
| Block: CALIB | |||
| root name | type | description | orange name |
| Calib_idcalscheme | Int_t | energy corrections scheme default is 0 HERA I correction 1=enable James/Burkhard HERA II em energy scale corrections 2=new correction by Ritu |
Calib_idcalscheme |
| Block: CALTRU | |||
| root name | type | description | orange name |
| Ncaltru | Int_t | No. of cells in caltru | Ncaltru |
| Caltru_cellnr[ncaltru] | Int_t | Cellnumber in caltru | Caltru_cellnr(ncaltru) |
| Caltru_e[ncaltru] | Float_t | Energy in cells for caltru | Caltru_e(ncaltru) |
| Caltru_imbal[ncaltru] | Float_t | Imbalance in cells for caltru | Caltru_imbal(ncaltru) |
| Caltru_t[ncaltru][2] | Float_t | Timing in cells for caltru | Caltru_t(2,ncaltru) |
| Caltru_id[ncaltru] | Int_t | ID of cells for caltru | Caltru_id(ncaltru) |
| Block: CALTRUp | |||
| root name | type | description | orange name |
| Caltru_pos[ncaltru][3] | Float_t | position of cell center | Caltru_pos(3,ncaltru) |
| Block: CALTRUo | |||
| root name | type | description | orange name |
| Caltru_eoriginal[ncaltru] | Float_t | cell energy in raw data | Caltru_eoriginal(ncaltru) |
| Block: CAL | |||
| root name | type | description | orange name |
| Cal_px | Float_t | Net x-momentum using CAL cells | Cal_px |
| Cal_py | Float_t | Net y-momentum using CAL cells | Cal_py |
| Cal_pz | Float_t | Net z-momentum using CAL cells | Cal_pz |
| Cal_e | Float_t | Total energy in CAL (cells) =SUM(CALTRU_E) | Cal_e |
| Cal_et | Float_t | Transverse Energy =SUM(CALTRU_E*sin(thetai)) | Cal_et |
| Cal_empz | Float_t | =(SUM(E)-SUM(p_z)) | Cal_empz |
| Cal_pt | Float_t | Transverse momentum | Cal_pt |
| Cal_phi | Float_t | =atan2(SUM(p_y),SUM(p_x)) | Cal_phi |
| Remc[6] | Float_t | REMC (px,py,pz,E,Et,E-Pz) | Remc(6) |
| Bemc[6] | Float_t | BEMC (px,py,pz,E,Et,E-Pz) | Bemc(6) |
| Femc[6] | Float_t | FEMC (px,py,pz,E,Et,E-Pz) | Femc(6) |
| Rhac[6] | Float_t | RHAC (px,py,pz,E,Et,E-Pz) | Rhac(6) |
| Bhac[6] | Float_t | BHAC (px,py,pz,E,Et,E-Pz) (HAC1+HAC2) | Bhac(6) |
| Fhac[6] | Float_t | FHAC (px,py,pz,E,Et,E-Pz) (HAC1+HAC2) | Fhac(6) |
| Bhac2[6] | Float_t | BHAC2 (px,py,pz,E,Et,E-Pz) | Bhac2(6) |
| Fhac2[6] | Float_t | FHAC2 (px,py,pz,E,Et,E-Pz) | Fhac2(6) |
| Nfemc | Int_t | number of FEMC cells | Nfemc |
| Nfhac1 | Int_t | number of FHAC1 cells | Nfhac1 |
| Nfhac2 | Int_t | number of FHAC2 cells | Nfhac2 |
| Nbemc | Int_t | number of BEMC cells | Nbemc |
| Nbhac1 | Int_t | number of BHAC1 cells | Nbhac1 |
| Nbhac2 | Int_t | number of BHAC2 cells | Nbhac2 |
| Nremc | Int_t | number of REMC cells | Nremc |
| Nrhac | Int_t | number of RHAC cells | Nrhac |
| Cal_tf | Float_t | FCAL time | Cal_tf |
| Cal_tb | Float_t | BCAL time | Cal_tb |
| Cal_tr | Float_t | RCAL time | Cal_tr |
| Cal_tg | Float_t | Global time | Cal_tg |
| Cal_tu | Float_t | Global upper time | Cal_tu |
| Cal_td | Float_t | Global lower time | Cal_td |
| Cal_tf_e | Float_t | Energy used for FCAL time average | Cal_tf_e |
| Cal_tb_e | Float_t | Energy used for BCAL time average | Cal_tb_e |
| Cal_tr_e | Float_t | Energy used for RCAL time average | Cal_tr_e |
| Cal_tg_e | Float_t | Energy used for Global time average | Cal_tg_e |
| Cal_tu_e | Float_t | Energy used for Global upper time average | Cal_tu_e |
| Cal_td_e | Float_t | Energy used for Global lower time average | Cal_td_e |
| Cal_tf_n | Int_t | number of PMTS used for FCAL time | Cal_tf_n |
| Cal_tb_n | Int_t | number of PMTS used for BCAL time | Cal_tb_n |
| Cal_tr_n | Int_t | number of PMTS used for RCAL time | Cal_tr_n |
| Cal_tg_n | Int_t | number of PMTS used for Global time | Cal_tg_n |
| Cal_tu_n | Int_t | number of PMTS used for Global upper time | Cal_tu_n |
| Cal_td_n | Int_t | number of PMTS used for Global lower time | Cal_td_n |
| Etamax_ce | Float_t | Eta_max of all cells | Etamax_ce |
| Etamax_ce4 | Float_t | Eta_max of cells with E > 400 MeV | Etamax_ce4 |
| Cal_et10 | Float_t | Trans. E in FCAL inside of 10^0 cone | Cal_et10 |
| Mtrknoe_pi | Float_t | Total mass of non-electron vertex tracks, assuming all tracks to be from pions. | Mtrknoe_pi |
| Mtrknoe_k | Float_t | Total mass of non-electron vertex tracks, assuming all tracks to be from kaons. | Mtrknoe_k |
| E_hk | Float_t | Energy of cells with eta > 3.1 | E_hk |
| Unmen_pi | Float_t | Unmatched Energy. (assuming kaons) | Unmen_pi |
| Unmen_k | Float_t | Unmatched Energy. (assuming kaons) | Unmen_k |
| Sparkf | Int_t | the same as sparkbit 0=take event 1=energy sum (w/o spark) too small 2=only one cell w bad channel |
Sparkf |
| Block: FCALIR | |||
| root name | type | description | orange name |
| Pex1ir[4] | Float_t | px,py,pz,E outside inner fcal ring | Pex1ir(4) |
| Et1ir | Float_t | Et inside inner fcal ring | Et1ir |
| Etex1ir | Float_t | Et outside inner fcal ring | Etex1ir |
| Pex2ir[4] | Float_t | px,py,pz,E outside 2 inner fcal rings | Pex2ir(4) |
| Et2ir | Float_t | Et inside 2 inner fcal rings | Et2ir |
| Etex2ir | Float_t | Et outside 2 inner fcal rings MK 01/06/10 new variables for HAc energy |
Etex2ir |
| F1rhac | Float_t | HAC energy in inner fcal ring | F1rhac |
| F2rhac | Float_t | HAC energy in 2 inner fcal rings | F2rhac |
| Block: RCALIR | |||
| root name | type | description | orange name |
| Percir[4] | Float_t | Px, Py, Pz and E in the RCAL inner ring | Percir(4) |
| Etrcir | Float_t | Et in the RCAL inner ring | Etrcir |
| Block: CC | |||
| root name | type | description | orange name |
| Cc_had_0[4] | Float_t | Had. monenta (Px,Py,Pz,E) with nominal vertex (0,0,0) | Cc_had_0(4) |
| Cc_gamma_0 | Float_t | Gamma with nominal vertex (0,0,0) | Cc_gamma_0 |
| Cc_cehmom[4] | Float_t | Had. momenta (Px,Py,Pz,E) calculated from cells | Cc_cehmom(4) |
| Cc_zuhmom[4] | Float_t | Had. momenta (Px,Py,Pz,E) calculated with Zufos | Cc_zuhmom(4) |
| Cc_cchmom[4] | Float_t | Had. momenta (Px,Py,Pz,E) from CorAndCut | Cc_cchmom(4) |
| Cc_pt | Float_t | Pt from CorAndCut | Cc_pt |
| Cc_et | Float_t | Et from CorAndCur | Cc_et |
| Cc_empz | Float_t | E-pz from CorAndCut | Cc_empz |
| Cc_gamma | Float_t | Gamma from CorAndCut | Cc_gamma |
| Cc_yjb | Float_t | yjb from CorAndCut | Cc_yjb |
| Cc_q2jb | Float_t | Q2jb from CorAndCut | Cc_q2jb |
| Cc_xjb | Float_t | xjb from CorAndCut | Cc_xjb |
| Cc_etamax | Float_t | Max eta for condensate above 400 MeV | Cc_etamax |
| Cc_eemc | Float_t | EMC energy of highest energy condesate in FCAL | Cc_eemc |
| Cc_ehac1 | Float_t | HAC1 energy of highest energy condesate in FCAL | Cc_ehac1 |
| Cc_ehac2 | Float_t | HAC2 energy of highest energy condesate in FCAL | Cc_ehac2 |
| Cc_emaxco | Float_t | Total energy of highest energy condesate in FCAL | Cc_emaxco |
| Cc_nemc | Int_t | Number of EMC cells in highest energy condesate in FCAL | Cc_nemc |
| Cc_nhac1 | Int_t | Number of HAC1 cells in highest energy condesate in FCAL | Cc_nhac1 |
| Cc_nhac2 | Int_t | Number of HAC2 cells in highest energy condesate in FCAL | Cc_nhac2 |
| Cc_fclus_dt | Int_t | Width in towers of highest Et FCAL cluster | Cc_fclus_dt |
| Cc_fclus_dm | Int_t | Width in modules of highest Et FCAL cluster | Cc_fclus_dm |
| Cc_fclus_et | Float_t | Weighted Et of highest Et FCAL cluster | Cc_fclus_et |
| Cc_fclus_e | Float_t | Weighted energy of highest Et FCAL cluster | Cc_fclus_e |
| Cc_rclus_asoe | Float_t | Energy in corresponding RCAL cluster to highest Et cluster in FCAL | Cc_rclus_asoe |
| Cc_vapvpcell | Float_t | Vap/Vp from cells | Cc_vapvpcell |
| Cc_vapvpzu | Float_t | Vap/Vp from Zufos | Cc_vapvpzu |
| Cc_vapvpcac | Float_t | Vap/Vp from CorAndCut | Cc_vapvpcac |
| Block: Cells | |||
| root name | type | description | orange name |
| Ncell | Int_t | number of cells in the cell list | Ncell |
| Celllist[nCell] | Int_t |
cell numbers for electrons the k-th cell for i-th em candidate =Celllist[(Emcellptr[i-1]-1)+(k-1)] the k-th cell for i-th sinistra candidate =CellList[SiCellPtr[i-1]-1+(k-1)] |
Celllist(nCell) |
| Block: DisTrue | |||
| root name | type | description | orange name |
| Nlepton | Int_t | number of final state leptons (should always be 1) | Nlepton |
| Nradpho | Int_t | number of radiated photons (should always be 0 or 1) | Nradpho |
| Nboson | Int_t | number of exchanged bosons (should always be 1) | Nboson |
| Nquark | Int_t | number of incoming quarks (should always be 0 or 1) | Nquark |
| Ngluon | Int_t | number of incoming gluons (should always be 0 or 1) | Ngluon |
| Idscatlep | Int_t | FMCKin ID of the scattered lepton | Idscatlep |
| Idradpho | Int_t | FMCKin ID of the radiated photon | Idradpho |
| Idboson | Int_t | FMCKin ID of the exchanged boson | Idboson |
| Idquark | Int_t | FMCKin ID of the incident quark | Idquark |
| Idgluon | Int_t | FMCKin ID of the incident gluon | Idgluon |
| Dolepton | Int_t | FMCKin ID of the mother of the final state lepton | Dolepton |
| Doradpho | Int_t | FMCKin ID of the mother of the radiated photon | Doradpho |
| Doboson | Int_t | FMCKin ID of the mother of the exchanged boson | Doboson |
| Doquark | Int_t | FMCKin ID of the mother of the incident quark | Doquark |
| Dogluon | Int_t | FMCKin ID of the mother of the incident gluon | Dogluon |
| Plepton[5] | Float_t | 4-momentum + mass of final state lepton | Plepton(5) |
| Pradpho[5] | Float_t | 4-momentum + mass of radiated photon | Pradpho(5) |
| Pboson[5] | Float_t | 4-momentum + mass of exchanged boson | Pboson(5) |
| Pquark[5] | Float_t | 4-momentum + mass of incident quark | Pquark(5) |
| Pgluon[5] | Float_t | 4-momentum + mass of incident gluon | Pgluon(5) |
| Nqg | Int_t | number of quarks+gluons (not including incident) | Nqg |
| Quarkprt | Int_t | particle number of the incident quark | Quarkprt |
| Idqg[nqg] | Int_t | FMCKin ID of quarks+gluons | Idqg(nqg) |
| Doqg[nqg] | Int_t | FMCKin daughter-of for quarks+gluons | Doqg(nqg) |
| Prtqg[nqg] | Int_t | particle type of quarks+gluons | Prtqg(nqg) |
| Pqg[nqg][5] | Float_t | 4-momenta+mass of quarks+gluons | Pqg(5,nqg) |
| Block: EM | |||
| root name | type | description | orange name |
| Emncand | Int_t | Number of candidates | Emncand |
| Emerror | Int_t | Em Error Code (0=OK) | Emerror |
| Emprob[EmNcand] | Float_t | Electron Grand Probability | Emprob(EmNcand) |
| Empos[EmNcand][3] | Float_t | Electron position (x,y,z) CAL+HES+SRTD | Empos(3,EmNcand) |
| Emcalpos[EmNcand][3] | Float_t | Electron position (x,y,z) CAL | Emcalpos(3,EmNcand) |
| Emcalene[EmNcand] | Float_t | Electron calorimeter energy | Emcalene(EmNcand) |
| Emein[EmNcand] | Float_t | Electron energy in Cone | Emein(EmNcand) |
| Emenin[EmNcand] | Float_t | Energy in Cone not from electron | Emenin(EmNcand) |
| Emecorr[EmNcand][3] | Float_t |
Corrected energy from emEnergyCorrection5.fpp
|
Emecorr(3,EmNcand) |
| Emth[EmNcand] | Float_t | Theta calculated from EmPos | Emth(EmNcand) |
| Emph[EmNcand] | Float_t | Phi calculated from EmPos | Emph(EmNcand) |
| Empt[EmNcand] | Float_t | Pt calculated from EmPos | Empt(EmNcand) |
| Emxdet[EmNcand][3] | Int_t | 0=CAL,1=HES,2=SRTD used in x pos (0=no,1=yes) | Emxdet(3,EmNcand) |
| Emydet[EmNcand][3] | Int_t | 0=CAL,1=HES,2=SRTD used in y pos (0=no,1=yes) | Emydet(3,EmNcand) |
| Block: EM_TRK | |||
| root name | type | description | orange name |
| Emtrknr[EmNcand] | Int_t | Track number in VCTRHL | Emtrknr(EmNcand) |
| Emnrsl[EmNcand] | Int_t | Number of hit Super Layers | Emnrsl(EmNcand) |
| Emdca[EmNcand] | Float_t | Distance of Closest Approach | Emdca(EmNcand) |
| Emdcabeam[EmNcand] | Float_t | Distance of Closest Approach to the Beam Line | Emdcabeam(EmNcand) |
| Emtrkp[EmNcand] | Float_t | Momentum of the track | Emtrkp(EmNcand) |
| Emtrkth[EmNcand] | Float_t | Theta from track | Emtrkth(EmNcand) |
| Emtrkph[EmNcand] | Float_t | Phi at the beg. of the trakc | Emtrkph(EmNcand) |
| Emtrkq[EmNcand] | Float_t | Charge of the track | Emtrkq(EmNcand) |
| Emtrkdme[EmNcand] | Float_t | distance to module edge (cm) from Track | Emtrkdme(EmNcand) |
| Emtrkdce[EmNcand] | Float_t | distance to cell edge (cm) from Track | Emtrkdce(EmNcand) |
| Emtrkpos[EmNcand][3] | Float_t | extrapolated track position | Emtrkpos(3,EmNcand) |
| Block: EM_DET | |||
| root name | type | description | orange name |
| Emsrtf[EmNcand] | Int_t | SRTD Error Flag | Emsrtf(EmNcand) |
| Emsrtquad[EmNcand] | Int_t | SRTD Quadrant | Emsrtquad(EmNcand) |
| Emhesf[EmNcand] | Int_t | HES Error Flag | Emhesf(EmNcand) |
| Emcorrcode[EmNcand] | Int_t | energy correction code from emenergycorrection5.fpp 1= dead material map 2= SRTD using routine PresCorF 3= Rear Presampler using routine PresCorF 4= Rear Presampler using routine prcorr_3 5= Barrel Presampler using routine EeCorrBCAL |
Emcorrcode(EmNcand) |
| Emsrtpos[EmNcand][2] | Float_t | Electron position (x,y) from SRTD | Emsrtpos(2,EmNcand) |
| Emsrtene[EmNcand] | Float_t | SRTD Energy | Emsrtene(EmNcand) |
| Emhespos[EmNcand][2] | Float_t | Electron position (x,y) from HES | Emhespos(2,EmNcand) |
| Emhesene[EmNcand] | Float_t | HES Energy | Emhesene(EmNcand) |
| Emhesr[EmNcand] | Float_t | HES Ratio | Emhesr(EmNcand) |
| Emprsene[EmNcand][3] | Float_t | Electron presampler energy in 3 windows | Emprsene(3,EmNcand) |
| Block: EM_HAD | |||
| root name | type | description | orange name |
| Emccet[EmNcand] | Float_t | Et from CorAndCut | Emccet(EmNcand) |
| Emccempz[EmNcand] | Float_t | E-Pz from CorAndCut | Emccempz(EmNcand) |
| Emetamax[EmNcand] | Float_t | EtaMax from Condensates | Emetamax(EmNcand) |
| Emcehmom[EmNcand][4] | Float_t | Hadronic 4-momentum (cells) | Emcehmom(4,EmNcand) |
| Emzuhmom[EmNcand][4] | Float_t | Hadronic 4-momentum (Zufos) | Emzuhmom(4,EmNcand) |
| Emcchmom[EmNcand][4] | Float_t | Hadronic 4-momentum (CorandCut) | Emcchmom(4,EmNcand) |
| Block: EM_KIN | |||
| root name | type | description | orange name |
| Emxel[EmNcand] | Float_t | x Bjorken calculated with electron method | Emxel(EmNcand) |
| Emyel[EmNcand] | Float_t | inelasticity y calculated with electron method | Emyel(EmNcand) |
| Emq2el[EmNcand] | Float_t | virtuality Q2 calculated with electron method | Emq2el(EmNcand) |
| Emxda[EmNcand] | Float_t | x Bjorken calculated with double-angle method based on zufos | Emxda(EmNcand) |
| Emyda[EmNcand] | Float_t | inelasticity y calculated with double-angle method based on zufos | Emyda(EmNcand) |
| Emq2da[EmNcand] | Float_t | virtuality Q2 calculated with double-angle method based on zufos | Emq2da(EmNcand) |
| Emxda_cell[EmNcand] | Float_t | x Bjorken calculated with double-angle method based on cells | Emxda_cell(EmNcand) |
| Emyda_cell[EmNcand] | Float_t | inelasticity y calculated with double-angle method based on cells | Emyda_cell(EmNcand) |
| Emq2da_cell[EmNcand] | Float_t | virtuality Q2 calculated with double-angle method based on cells | Emq2da_cell(EmNcand) |
| Emxjb[EmNcand] | Float_t | x Bjorken calculated with Jacquet-Blondel method based on zufos | Emxjb(EmNcand) |
| Emyjb[EmNcand] | Float_t | inelasticity y calculated with Jacquet-Blondel method based on zufos | Emyjb(EmNcand) |
| Emq2jb[EmNcand] | Float_t | virtuality Q2 calculated with Jacquet-Blondel method based on zufos | Emq2jb(EmNcand) |
| Emxjb_cell[EmNcand] | Float_t | x Bjorken calculated with Jacquet-Blondel method based on cells | Emxjb_cell(EmNcand) |
| Emyjb_cell[EmNcand] | Float_t | inelasticity y calculated with Jacquet-Blondel method based on cells | Emyjb_cell(EmNcand) |
| Emq2jb_cell[EmNcand] | Float_t | virtuality Q2 calculated with Jacquet-Blondel method based on cells | Emq2jb_cell(EmNcand) |
| Block: EM_CELLS | |||
| root name | type | description | orange name |
| Emncell[EmNcand] | Int_t | number of cells | Emncell(EmNcand) |
| Emcellptr[EmNcand] | Int_t |
the k-th cell for i-th candidate =Celllist[(Emcellptr[i-1]-1)+(k-1)] |
Emcellptr(EmNcand) |
| Block: EM_Prob | |||
| root name | type | description | orange name |
| Emfemc[EmNcand] | Float_t | energy fraction in EM layer | Emfemc(EmNcand) |
| Emcalprob[EmNcand] | Float_t | probability from cal shape + isolation | Emcalprob(EmNcand) |
| Block: Em_TrIso | |||
| root name | type | description | orange name |
| Eminctd[EmNcand] | logical | was the candidate in the CTD acceptance? | Eminctd(EmNcand) |
| Emnneartrk[EmNcand][2] | Int_t | num tracks in eta-phi cones with radii 0.2 and 0.4 centered on the candidate. these radii are defined by the variable emTrackConeRadius in empar.inc which the use may modify |
Emnneartrk(2,EmNcand) |
| Emetneartrk[EmNcand][2] | Float_t | Et of tracks in eta-phi cones with radii as described above |
Emetneartrk(2,EmNcand) |
| Emtrkmatchi2[EmNcand] | Float_t | Chi^2 of track-cal match from | Emtrkmatchi2(EmNcand) |
| Block: EM_Show | |||
| root name | type | description | orange name |
| Emfmaxbemc[EmNcand] | Float_t | energy fraction in highest BEMC cell | Emfmaxbemc(EmNcand) |
| Emfmaxremc[EmNcand] | Float_t | energy fraction in highest REMC cell | Emfmaxremc(EmNcand) |
| Emfmaxfemc[EmNcand] | Float_t | energy fraction in highest FEMC cell | Emfmaxfemc(EmNcand) |
| Emdeltaz[EmNcand] | Float_t | z width in cm of cluster in BEMC | Emdeltaz(EmNcand) |
| Emdeltax[EmNcand] | Float_t | x width in cm of cluster in F/REMC | Emdeltax(EmNcand) |
| Emdeltay[EmNcand] | Float_t | y width in cm of cluster in F/REMC | Emdeltay(EmNcand) |
| Block: EM_DMCOR | |||
| root name | type | description | orange name |
| Emx0[EmNcand] | Float_t | number of X0's from the dead mateiral map | Emx0(EmNcand) |
| Emdmcorr[EmNcand] | Float_t | dead material correction from parametrization defined as E_CAL / E_true |
Emdmcorr(EmNcand) |
| Emdmcorrcode[EmNcand] | Int_t | 0 = dead material correction ok 1 = dead material correction too large 2 = dead material correction unusable |
Emdmcorrcode(EmNcand) |
| Block: E5 | |||
| root name | type | description | orange name |
| E5ncand | Int_t | Number of candidates | E5ncand |
| E5error | Int_t | E5 Error Code (0=OK) | E5error |
| E5prob[E5Ncand] | Float_t | Electron Grand Probability | E5prob(E5Ncand) |
| E5pos[E5Ncand][3] | Float_t | Electron position (x,y,z) CAL+HES+SRTD | E5pos(3,E5Ncand) |
| E5calpos[E5Ncand][3] | Float_t | Electron position (x,y,z) CAL | E5calpos(3,E5Ncand) |
| E5calene[E5Ncand] | Float_t | Electron calorimeter energy | E5calene(E5Ncand) |
| E5ein[E5Ncand] | Float_t | Electron energy in Cone | E5ein(E5Ncand) |
| E5enin[E5Ncand] | Float_t | Energy in Cone not from electron | E5enin(E5Ncand) |
| E5ecorr[E5Ncand][3] | Float_t |
Corrected energy from emEnergyCorrection5.fpp
|
E5ecorr(3,E5Ncand) |
| E5th[E5Ncand] | Float_t | Theta calculated from E5Pos | E5th(E5Ncand) |
| E5ph[E5Ncand] | Float_t | Phi calculated from E5Pos | E5ph(E5Ncand) |
| E5pt[E5Ncand] | Float_t | Pt calculated from E5Pos | E5pt(E5Ncand) |
| E5xdet[E5Ncand][3] | Int_t | 0=CAL,1=HES,2=SRTD used in x pos (0=no,1=yes) | E5xdet(3,E5Ncand) |
| E5ydet[E5Ncand][3] | Int_t | 0=CAL,1=HES,2=SRTD used in y pos (0=no,1=yes) | E5ydet(3,E5Ncand) |
| Block: E5_TRK | |||
| root name | type | description | orange name |
| E5trknr[E5Ncand] | Int_t | Track number in VCTRHL | E5trknr(E5Ncand) |
| E5nrsl[E5Ncand] | Int_t | Number of hit Super Layers | E5nrsl(E5Ncand) |
| E5dca[E5Ncand] | Float_t | Distance of Closest Approach | E5dca(E5Ncand) |
| E5dcabeam[E5Ncand] | Float_t | Distance of Closest Approach to the Beam Line | E5dcabeam(E5Ncand) |
| E5trkp[E5Ncand] | Float_t | Momentum of the track | E5trkp(E5Ncand) |
| E5trkth[E5Ncand] | Float_t | Theta from track | E5trkth(E5Ncand) |
| E5trkph[E5Ncand] | Float_t | Phi at the beg. of the trakc | E5trkph(E5Ncand) |
| E5trkq[E5Ncand] | Float_t | Charge of the track | E5trkq(E5Ncand) |
| E5trkdme[E5Ncand] | Float_t | distance to module edge (cm) from Track | E5trkdme(E5Ncand) |
| E5trkdce[E5Ncand] | Float_t | distance to cell edge (cm) from Track | E5trkdce(E5Ncand) |
| E5trkpos[E5Ncand][3] | Float_t | extrapolated track position | E5trkpos(3,E5Ncand) |
| Block: E5_DET | |||
| root name | type | description | orange name |
| E5srtf[E5Ncand] | Int_t | SRTD Error Flag | E5srtf(E5Ncand) |
| E5srtquad[E5Ncand] | Int_t | SRTD Quadrant | E5srtquad(E5Ncand) |
| E5hesf[E5Ncand] | Int_t | HES Error Flag | E5hesf(E5Ncand) |
| E5corrcode[E5Ncand] | Int_t | energy correction code from e5energycorrection5.fpp 1= dead material map 2= SRTD using routine PresCorF 3= Rear Presampler using routine PresCorF 4= Rear Presampler using routine prcorr_3 5= Barrel Presampler using routine EeCorrBCAL |
E5corrcode(E5Ncand) |
| E5srtpos[E5Ncand][2] | Float_t | Electron position (x,y) from SRTD | E5srtpos(2,E5Ncand) |
| E5srtene[E5Ncand] | Float_t | SRTD Energy | E5srtene(E5Ncand) |
| E5hespos[E5Ncand][2] | Float_t | Electron position (x,y) from HES | E5hespos(2,E5Ncand) |
| E5hesene[E5Ncand] | Float_t | HES Energy | E5hesene(E5Ncand) |
| E5hesr[E5Ncand] | Float_t | HES Ratio | E5hesr(E5Ncand) |
| E5prsene[E5Ncand][3] | Float_t | Electron presampler energy in 3 windows | E5prsene(3,E5Ncand) |
| Block: E5_HAD | |||
| root name | type | description | orange name |
| E5ccet[E5Ncand] | Float_t | Et from CorAndCut | E5ccet(E5Ncand) |
| E5ccempz[E5Ncand] | Float_t | E-Pz from CorAndCut | E5ccempz(E5Ncand) |
| E5etamax[E5Ncand] | Float_t | EtaMax from Condensates | E5etamax(E5Ncand) |
| E5cehmom[E5Ncand][4] | Float_t | Hadronic 4-momentum (cells) | E5cehmom(4,E5Ncand) |
| E5zuhmom[E5Ncand][4] | Float_t | Hadronic 4-momentum (Zufos) | E5zuhmom(4,E5Ncand) |
| E5cchmom[E5Ncand][4] | Float_t | Hadronic 4-momentum (CorandCut) | E5cchmom(4,E5Ncand) |
| Block: E5_KIN | |||
| root name | type | description | orange name |
| E5xel[E5Ncand] | Float_t | x Bjorken calculated with electron method | E5xel(E5Ncand) |
| E5yel[E5Ncand] | Float_t | inelasticity y calculated with electron method | E5yel(E5Ncand) |
| E5q2el[E5Ncand] | Float_t | virtuality Q2 calculated with electron method | E5q2el(E5Ncand) |
| E5xda[E5Ncand] | Float_t | x Bjorken calculated with double-angle method based on zufos | E5xda(E5Ncand) |
| E5yda[E5Ncand] | Float_t | inelasticity y calculated with double-angle method based on zufos | E5yda(E5Ncand) |
| E5q2da[E5Ncand] | Float_t | virtuality Q2 calculated with double-angle method based on zufos | E5q2da(E5Ncand) |
| E5xda_cell[E5Ncand] | Float_t | x Bjorken calculated with double-angle method based on cells | E5xda_cell(E5Ncand) |
| E5yda_cell[E5Ncand] | Float_t | inelasticity y calculated with double-angle method based on cells | E5yda_cell(E5Ncand) |
| E5q2da_cell[E5Ncand] | Float_t | virtuality Q2 calculated with double-angle method based on cells | E5q2da_cell(E5Ncand) |
| E5xjb[E5Ncand] | Float_t | x Bjorken calculated with Jacquet-Blondel method based on zufos | E5xjb(E5Ncand) |
| E5yjb[E5Ncand] | Float_t | inelasticity y calculated with Jacquet-Blondel method based on zufos | E5yjb(E5Ncand) |
| E5q2jb[E5Ncand] | Float_t | virtuality Q2 calculated with Jacquet-Blondel method based on zufos | E5q2jb(E5Ncand) |
| E5xjb_cell[E5Ncand] | Float_t | x Bjorken calculated with Jacquet-Blondel method based on cells | E5xjb_cell(E5Ncand) |
| E5yjb_cell[E5Ncand] | Float_t | inelasticity y calculated with Jacquet-Blondel method based on cells | E5yjb_cell(E5Ncand) |
| E5q2jb_cell[E5Ncand] | Float_t | virtuality Q2 calculated with Jacquet-Blondel method based on cells | E5q2jb_cell(E5Ncand) |
| Block: E5_Prob | |||
| root name | type | description | orange name |
| E5femc[E5Ncand] | Float_t | energy fraction in E5 layer | E5femc(E5Ncand) |
| E5calprob[E5Ncand] | Float_t | probability from cal shape + isolation | E5calprob(E5Ncand) |
| Block: E5_TrIso | |||
| root name | type | description | orange name |
| E5inctd[E5Ncand] | logical | was the candidate in the CTD acceptance? | E5inctd(E5Ncand) |
| E5nneartrk[E5Ncand][2] | Int_t | num tracks in eta-phi cones with radii 0.2 and 0.4 centered on the candidate. These radii are defined by the variable e5TrackConeRadius in e5par.inc which the use may modify |
E5nneartrk(2,E5Ncand) |
| E5etneartrk[E5Ncand][2] | Float_t | Et of tracks in eta-phi cones with radii as described above |
E5etneartrk(2,E5Ncand) |
| E5trkmatchi2[E5Ncand] | Float_t | Chi^2 of track-cal match from | E5trkmatchi2(E5Ncand) |
| Block: E5_Show | |||
| root name | type | description | orange name |
| E5fmaxbemc[E5Ncand] | Float_t | energy fraction in highest BEMC cell | E5fmaxbemc(E5Ncand) |
| E5fmaxremc[E5Ncand] | Float_t | energy fraction in highest REMC cell | E5fmaxremc(E5Ncand) |
| E5fmaxfemc[E5Ncand] | Float_t | energy fraction in highest FEMC cell | E5fmaxfemc(E5Ncand) |
| E5deltaz[E5Ncand] | Float_t | z width in cm of cluster in BEMC | E5deltaz(E5Ncand) |
| E5deltax[E5Ncand] | Float_t | x width in cm of cluster in F/REMC | E5deltax(E5Ncand) |
| E5deltay[E5Ncand] | Float_t | y width in cm of cluster in F/REMC | E5deltay(E5Ncand) |
| Block: FastClr | |||
| root name | type | description | orange name |
| Fc_etot | Float_t | total energy | Fc_etot |
| Fc_pt | Float_t | pt | Fc_pt |
| Fc_empz | Float_t | E-pz | Fc_empz |
| Fc_proctime | Float_t | processing time | Fc_proctime |
| Fcb_elec | Int_t | electron bit | Fcb_elec |
| Fcb_ptmis | Int_t | missing pt bit | Fcb_ptmis |
| Fcb_beamg | Int_t | beamgas bit | Fcb_beamg |
| Fcb_empzlo | Int_t | low E-Pz threshold bit | Fcb_empzlo |
| Fcb_empzhi | Int_t | high E-pz threshold bit | Fcb_empzhi |
| Fcb_etcl | Int_t | cluster Et bit | Fcb_etcl |
| Fcb_abort | Int_t | FC abort bit (internal FCLR logic) | Fcb_abort |
| Fcb_fltabort | Int_t | GFLT aborted the event based on FCLR | Fcb_fltabort |
| Fcb_dump | Int_t | DMPBIT: FC dumped CFLT data for this event | Fcb_dump |
| Fce_dmp_abnd | Int_t | FC Dump of CFLT data was Abandoned | Fce_dmp_abnd |
| Fce_fatalnotdone | Int_t | no data from CFLT | Fce_fatalnotdone |
| Fce_toobig | Int_t | FC intenal timeout, event too big | Fce_toobig |
| Fce_incomplete | Int_t | timeout from GFLT? | Fce_incomplete |
| Fce_nofcfif2 | Int_t | FCFIF2 table is missing | Fce_nofcfif2 |
| O1fltfl | Int_t | O1EVNT_FLTfl | O1fltfl |
| Fltfc_valid | Int_t | btest(O1EVNT_FLTfl,14) FC information was valid according to FLT | Fltfc_valid |
| Fltfc_fcerror | Int_t | btest(O1EVNT_FLTfl,21) FC had error bit set, ignored by FLT | Fltfc_fcerror |
| Fltfc_fcbusy | Int_t | btest(O1EVNT_FLTfl,22) FC was busy, ignored by FLT | Fltfc_fcbusy |
| Fltfc_fcabortcond | Int_t | btest(O1EVNT_FLTfl,23) FC conditions met for aborting the event | Fltfc_fcabortcond |
| Flttesttype | Int_t | test trigger type when fltRoTyp=2 | Flttesttype |
| Fltrotyp | Int_t | ReadOutType: 0=normal,1=after FC abort,2=TestTrigger | Fltrotyp |
| Fltbunchambig | Int_t | bunch ambiguity flag | Fltbunchambig |
| Fltbcn | Int_t | Bunch Crossing Number | Fltbcn |
| Fc_wc_t | Int_t | Trigger Cards words = 6*coutab(FCCLU2) | Fc_wc_t |
| Fc_wc_f | Int_t | Fcal words = coutab(FCFRAW) | Fc_wc_f |
| Fc_wc_b | Int_t | Bcal words = coutab(FCBRAW) | Fc_wc_b |
| Fc_wc_r | Int_t | Rcal words = coutab(FCRRAW) | Fc_wc_r |
| Fltfc_elec | Int_t | btest(O1EVNT_FLTfl, 9) Electron bit | Fltfc_elec |
| Fltfc_ptmis | Int_t | btest(O1EVNT_FLTfl,10) Ptmis bit | Fltfc_ptmis |
| Fltfc_beamg | Int_t | btest(O1EVNT_FLTfl,11) BeamGas bit | Fltfc_beamg |
| Fltfc_empzlo | Int_t | btest(O1EVNT_FLTfl,12) E-Pz low threshold | Fltfc_empzlo |
| Fltfc_empzhi | Int_t | btest(O1EVNT_FLTfl,13) E-Pz high threshold | Fltfc_empzhi |
| Fltfc_etcl | Int_t | btest(O1EVNT_FLTfl,20) EtCluster bit | Fltfc_etcl |
| Fltfc_abort | Int_t | btest(O1EVNT_FLTfl, 8) FC abort suggestion | Fltfc_abort |
| Fltfc_fltabort | Int_t | btest(O1EVNT_FLTfl,15) FLT aborted the event based on FC information | Fltfc_fltabort |
| Block: FastClr2 | |||
| root name | type | description | orange name |
| Fc_readstat_t | Int_t | Trigger possible read-errors for raw data | Fc_readstat_t |
| Fc_readstat_f | Int_t | Fcal possible read-errors for raw data | Fc_readstat_f |
| Fc_readstat_b | Int_t | Bcal possible read-errors for raw data | Fc_readstat_b |
| Fc_readstat_r | Int_t | Rcal possible read-errors for raw data | Fc_readstat_r |
| Fc_unknaddr_t | Int_t | Trigger status of starting addresses | Fc_unknaddr_t |
| Fc_unknaddr_f | Int_t | Fcal status of starting addresses | Fc_unknaddr_f |
| Fc_unknaddr_b | Int_t | Bcal status of starting addresses | Fc_unknaddr_b |
| Fc_unknaddr_r | Int_t | Rcal status of starting addresses | Fc_unknaddr_r |
| Fc_sa_t | Int_t | Trigger Card starting address of raw data | Fc_sa_t |
| Fc_sa_f | Int_t | Fcal starting address of raw data | Fc_sa_f |
| Fc_sa_b | Int_t | Bcal starting address of raw data | Fc_sa_b |
| Fc_sa_r | Int_t | Rcal starting address of raw data | Fc_sa_r |
| Block: FMCKin | |||
| root name | type | description | orange name |
| Npart | Int_t | number of final state particles in FMCKin | Npart |
| Idlepton | Int_t | FMCKin_ID of the scattered lepton | Idlepton |
| Idphoton | Int_t | FMCKin_ID of the radiated photon (zero if none) | Idphoton |
| Part_id[nPart] | Int_t | FMCKin_ID | Part_id(nPart) |
| Part_prt[nPart] | Int_t | particle type | Part_prt(nPart) |
| Part_p[nPart][4] | Float_t | 4-momentum | Part_p(4,nPart) |
| Block: GMUON | |||
| root name | type | description | orange name |
| Nmu | Int_t | number of muon candidates (all finders); | Nmu |
| Muqual[Nmu] | Int_t | global muon quality flag: 6 - excellent quality muon for high bg. samples e.g. BREMAT 5dof pmatch > 0.01 from prim. vtx MPMATCH or MUFO, p > 0.05 or MV 5 - very good quality muon for interm./high bg. samples e.g. all other MPMATCH/MUFO to CTD good quality MUFO to vertex noncentral BREMAT 4dof + MV MAMMA FMU+CAL+CTD noncentral BAC + MV, good quality all BREMAT + BAC + MV 4 - good quality muon for intermediate bg. samples e.g. BREMAT 4dof pmatch > 0.01 from prim. vtx lesser quality MUFO to vertex unmatched FMU + MV central BAC + MV, good quality BAC + MIP (p > 2) good quality BAC 3 - fair quality muon candidate for low bg. samples e.g. BREMAT 5dof pmatch > 0.01 not from prim. vtx MV prob > 0.95 GLOMU + MV prob > 0.6 MAMMA FMU+CAL BAC + MV, bad quality BREMAT + BAC, bad quality GLOMU + BAC 2 - reasonable quality muon candidate for low bg. samples e.g. BREMAT 4dof pmatch > 0.01 not from prim. vtx unmatched FMU track (MFCTS) MV prob > 0.8 GLOMU match reasonable quality BAC 1 - low quality muon candidate MPMATCH to CTD, pmatch < 0.01 MV prob > 0.6 0 - unknown or very low quality muon candidate e.g. MIP match only MV without track or secondary vertex or no vertex -1 - doubtful muon candidate e.g. BREMAT 5dof p < 0.01 -2 - bad muon candidate e.g. BREMAT 4dof p < 0.01 unmatched FMU track with reconstruction problem -3 - alternative reconstruction of muon already in list quality and use to be judged by user -999 - simulated MC prompt muon, not identified -1000 - simulated MC pi/K decay muon, not identified |
Muqual(Nmu) |
| Mucharge[Nmu] | Int_t | muon charge (0 if no info) | Mucharge(Nmu) |
| Mupt[Nmu] | Float_t | muon pt ) from CTD only or REGular | Mupt(Nmu) |
| Muth[Nmu] | Float_t | muon theta ) tracking, depending on | Muth(Nmu) |
| Muph[Nmu] | Float_t | muon phi ) Orange settings | Muph(Nmu) |
| Mup[Nmu][3] | Float_t | muon momentum from best available global | Mup(3,Nmu) |
| Muperr[Nmu] | Float_t | momentum error | Muperr(Nmu) |
| Mutrfl[Nmu] | Int_t | central tracking flag: 0 - not used (i.e. momentum from muon chambers only) 1 - momentum from VCTRHL (REGular or CTD only) 2 - momentum from VCTPAR (REGular or CTD only) 3 - momentum from VCPARSEC (REGular or CTD only) |
Mutrfl(Nmu) |
| Mutrid[Nmu] | Int_t | relevant track id (0 if no info) | Mutrid(Nmu) |
| Muvcid[Nmu] | Int_t | VCTRHL id (0 if no match) | Muvcid(Nmu) |
| Muztid[Nmu] | Int_t | ZTTRHL id (0 if no match) | Muztid(Nmu) |
| Mustid[Nmu] | Int_t | associated STPRHL id (0 if no match) | Mustid(Nmu) |
| Muvtxfl[Nmu] | Int_t | vertex flag: | Muvtxfl(Nmu) |
| Muvtxid[Nmu] | Int_t | relevant vertex id (not yet filled, requests to A.Geiser) |
Muvtxid(Nmu) |
| Muglomu[Nmu] | Int_t | muon found by GLOMU: 0 - no, 1,2 -> entry in GLOMU block |
Muglomu(Nmu) |
| Mubremat[Nmu] | Int_t | muon found by BREMAT: 0 - no, >0 -> entry in BREMAT block |
Mubremat(Nmu) |
| Mubacmat[Nmu] | Int_t | muon found by BACMAT: 0 - no, >0 -> entry in BACMAT block |
Mubacmat(Nmu) |
| Mumubac[Nmu] | Int_t | muon matched to BAC: 0 - no, >0 -> entry in MUBAC block |
Mumubac(Nmu) |
| Mumamma[Nmu] | Int_t | muon found by MAMMA: 0 - no, 1 CTD+CAL, 2 CAL only -> FM block |
Mumamma(Nmu) |
| Mumpmat[Nmu] | Int_t | muon found by MPMATCH2: 0 - no, >0 -> entry in MPMATCH2 block |
Mumpmat(Nmu) |
| Mumufo[Nmu] | Int_t | muon found by MUFO: 0 - no, >0 -> entry in MUFO block |
Mumufo(Nmu) |
| Mumip[Nmu] | Int_t | muon found by CAL MIP: 0 - no, 1,2 -> entry in MIP muon block |
Mumip(Nmu) |
| Mumv[Nmu] | Int_t | muon found by MV finder: 0 - no, >0 -> entry in MV block |
Mumv(Nmu) |
| Mucalfl[Nmu] | Int_t | muonic zufo code (see muzmat.fpp) | Mucalfl(Nmu) |
| Mucalene[Nmu] | Float_t | cal energy deposit around muon | Mucalene(Nmu) |
| Muhac2[Nmu] | Float_t |
cal energy deposit in HAC2 (HAC1 included if Theta > 2 || 0.8> Theta> 0.6) |
Muhac2(Nmu) |
| Muzufid[Nmu] | Int_t | id of muon zufo object | Muzufid(Nmu) |
| Mupmip[Nmu] | Float_t | MV CAL mip probability | Mupmip(Nmu) |
| Muhene[Nmu] | Float_t | HES energy deposition (from MV) | Muhene(Nmu) |
| Mutime[Nmu] | Float_t | CAL mip time (from MV) | Mutime(Nmu) |
| Muchfl[Nmu] | Int_t | BRMUON or FMUON chamber info used? | Muchfl(Nmu) |
| Muchid[Nmu] | Int_t | id of relevant BRMUON or FMUON object | Muchid(Nmu) |
| Mupmat[Nmu] | Float_t | matching probability | Mupmat(Nmu) |
| Mundof[Nmu] | Int_t | ndf from MFRTZ or BREMAT | Mundof(Nmu) |
| Munphi[Nmu] | Int_t | number of phi hits from MFRTZ | Munphi(Nmu) |
| Muz[Nmu] | Float_t | z from MFRTZ | Muz(Nmu) |
| Muprec[Nmu] | Float_t | chi2 prob from MFRTZ (or MBXYZ) | Muprec(Nmu) |
| Mubmchi2[Nmu] | Float_t | Chi2 of matching from BACMAT | Mubmchi2(Nmu) |
| Mubmbac[Nmu] | Int_t | Id of BAC object matched by BACMAT | Mubmbac(Nmu) |
| Mubacdca[Nmu] | Float_t | DCA to BAC object from MUBAC ( 0. if no match ) | Mubacdca(Nmu) |
| Mubacdimq[Nmu] | Int_t | MUBAC_DIM * ( 2 * MUBAC_QUALITY - 1 ) of relevant BAC object from MUBAC ( 0 if no match ) |
Mubacdimq(Nmu) |
| Mudxy[Nmu] | Float_t | unsigned impact parameter in xy (DCA) (not yet filled, requests to A.Geiser) |
Mudxy(Nmu) |
| Mudz[Nmu] | Float_t | signed delta z at this DCA (not yet filled, requests to A.Geiser) |
Mudz(Nmu) |
| Block: GMU_ISOL | |||
| root name | type | description | orange name |
| Muisol[Nmu][10] | Float_t | zufo energy in cones 0.1-1.0 | Muisol(10,Nmu) |
| Munis[Nmu][10] | Int_t | number of tracks in cones 0.1-1.0 | Munis(10,Nmu) |
| Muisdrmip[Nmu][2] | Float_t |
delta R of potential mip remnant 0 = actual muon 1 = other muon, if any |
Muisdrmip(2,Nmu) |
| Muisetmip[Nmu][2] | Float_t |
Et of potential mip remnant 0 = actual muon 1 = other muon, if any |
Muisetmip(2,Nmu) |
| Muistumip[Nmu][2] | Int_t |
tufo code of potential mip remnant 0 = actual muon 1 = other muon, if any |
Muistumip(2,Nmu) |
| Block: GMU_JET | |||
| root name | type | description | orange name |
| Mujetfl_a[Nmu] | Int_t | Flag for kind of jet association for kt_jet_a
0 - none 1 - kt, mu in jet 2 - kt, mu not in jet 3 - Delta R, mu in jet 4 - Delta R, mu not in jet |
Mujetfl_a(Nmu) |
| Mujetid_a[Nmu] | Int_t | Id of associated jet | Mujetid_a(Nmu) |
| Mujetdr_a[Nmu] | Float_t | Delta R : distance in eta-phi space | Mujetdr_a(Nmu) |
| Mujetpt_a[Nmu] | Float_t | ptrel of muon respective to jet | Mujetpt_a(Nmu) |
| Mujetdr2_a[Nmu] | Float_t | Delta R between muon and "jet-muon" | Mujetdr2_a(Nmu) |
| Mujetpt2_a[Nmu] | Float_t | ptrel of muon respective to "jet-muon" | Mujetpt2_a(Nmu) |
| Muhjet_id[Nmu] | Int_t | NUMBER OF ASSOCIATED HAD. LEV. JET | Muhjet_id(Nmu) |
| Mujetfl_b[Nmu] | Int_t | Flag for kind of jet association for kt_jet_b
0 - none 1 - kt, mu in jet 2 - kt, mu not in jet 3 - Delta R, mu in jet 4 - Delta R, mu not in jet |
Mujetfl_b(Nmu) |
| Mujetid_b[Nmu] | Int_t | Id of associated jet for kt_jet_b | Mujetid_b(Nmu) |
| Mujetdr_b[Nmu] | Float_t | Delta R : distance in eta-phi space for kt_jet_b | Mujetdr_b(Nmu) |
| Mujetpt_b[Nmu] | Float_t | ptrel of muon respective to jet for kt_jet_b | Mujetpt_b(Nmu) |
| Mujetdr2_b[Nmu] | Float_t | Delta R between muon and "jet-muon" for kt_jet_b | Mujetdr2_b(Nmu) |
| Mujetpt2_b[Nmu] | Float_t | ptrel of muon respective to "jet-muon" for kt_jet_b | Mujetpt2_b(Nmu) |
| Mujetfl_c[Nmu] | Int_t | Flag for kind of jet association for kt_jet_c
0 - none 1 - kt, mu in jet 2 - kt, mu not in jet 3 - Delta R, mu in jet 4 - Delta R, mu not in jet |
Mujetfl_c(Nmu) |
| Mujetid_c[Nmu] | Int_t | Id of associated jet for kt_jet_c | Mujetid_c(Nmu) |
| Mujetdr_c[Nmu] | Float_t | Delta R : distance in eta-phi space for kt_jet_c | Mujetdr_c(Nmu) |
| Mujetpt_c[Nmu] | Float_t | ptrel of muon respective to jet for kt_jet_c | Mujetpt_c(Nmu) |
| Mujetdr2_c[Nmu] | Float_t | Delta R between muon and "jet-muon" for kt_jet_c | Mujetdr2_c(Nmu) |
| Mujetpt2_c[Nmu] | Float_t | ptrel of muon respective to "jet-muon" for kt_jet_c | Mujetpt2_c(Nmu) |
| Mujetfl_d[Nmu] | Int_t | Flag for kind of jet association for kt_jet_d
0 - none 1 - kt, mu in jet 2 - kt, mu not in jet 3 - Delta R, mu in jet 4 - Delta R, mu not in jet |
Mujetfl_d(Nmu) |
| Mujetid_d[Nmu] | Int_t | Id of associated jet for kt_jet_d | Mujetid_d(Nmu) |
| Mujetdr_d[Nmu] | Float_t | Delta R : distance in eta-phi space for kt_jet_d | Mujetdr_d(Nmu) |
| Mujetpt_d[Nmu] | Float_t | ptrel of muon respective to jet for kt_jet_d | Mujetpt_d(Nmu) |
| Mujetdr2_d[Nmu] | Float_t | Delta R between muon and "jet-muon" for kt_jet_d | Mujetdr2_d(Nmu) |
| Mujetpt2_d[Nmu] | Float_t | ptrel of muon respective to "jet-muon" for kt_jet_d | Mujetpt2_d(Nmu) |
| Block: GMU_MC | |||
| root name | type | description | orange name |
| Muick[Nmu] | Int_t | FMCKIN ID OF ASSOCIATED PARTICLE ( *(-1) in case of ambiguous match ) |
Muick(Nmu) |
| Mupartyp[Nmu] | Int_t | FMCKIN PARTICLE TYPE OF ASSOC. PART. | Mupartyp(Nmu) |
| Mumc_p[Nmu][4] | Float_t | TRUE MUON 4-MOMENTUM FROM FMCKIN | Mumc_p(4,Nmu) |
| Mudirtyp[Nmu] | Int_t | FMCKIN PARTICLE TYPE OF DIRECT PARENT | Mudirtyp(Nmu) |
| Mumc_d[Nmu][4] | Float_t | DIRECT PARENT 4-MOMENTUM FROM FMCKIN | Mumc_d(4,Nmu) |
| Muqtyp[Nmu] | Int_t | FMCKIN PARTICLE TYPE OF PARENT QUARK | Muqtyp(Nmu) |
| Mumc_q[Nmu][4] | Float_t | QUARK PARENT 4-MOMENTUM FROM FMCKIN | Mumc_q(4,Nmu) |
| Mutruefl[Nmu] | Int_t | flag for true muon type 0: don't know 1: true muon 2: non recontructed muon -1: decay muon |
Mutruefl(Nmu) |
| Mudecdist[Nmu] | Float_t | scalar distance of pi/k decay from prim vertex | Mudecdist(Nmu) |
| Block: BACMAT | |||
| root name | type | description | orange name |
| Bm_n | Int_t | Number of matched pairs VCATCAL_track - BAC_track | Bm_n |
| Bm_idvc[Bm_n] | Int_t | ID of track in the "VCATCAL" table | Bm_idvc(Bm_n) |
| Bm_idmubac[Bm_n] | Int_t | ID of BAC muon candidate in the "MUBAC" common block (Phantom/Detectors/bac) (MUBAC ORANGE block is different from Mubac common block) |
Bm_idmubac(Bm_n) |
| Bm_istop[Bm_n] | Int_t | ISTOP returned by GEANE. The ISTOP value indicates the reason why GEANE stopped. Possible values: "0" - ISTOP not set. GEANE must never stop with ISTOP=0. "1" - GEANE stopped normally. (hit all stop planes) "2" - VCATCAL track has stopped with 0.0 momentum, but has not hit all stop planes. "88" - GEANE was stopped by zgeast. This should never occur when GEANE is called by BACMAT. "101" - GEANE was stopped by eustep_bacmat while looping. (by default, if GEANE made > 2000 steps). I don't know why the looping occures (bug?). "102" - VCATCAL track went out of the detector while extrapolation (stopped from eustep_bacmat) |
Bm_istop(Bm_n) |
| Bm_error[Bm_n] | Int_t | Error occured while matching track pair: "0" - No errors "2" - GEANE stopped while looping "3" - Stopped with ISTOP=1 but has not reached normal stop plane (bug) Bug fixed! Should never appear! "4" - Finished with ISTOP=88 (by zgeast.fpp). BACMAT doesn't use zgeast to control track turn angle. Should never appear. "5" - GEANE went out of the detector. |
Bm_error(Bm_n) |
| Bm_readout[Bm_n] | Int_t | BAC readout available for the matched BAC track: "1" - pad-only, "2" - hit-only, "3" - both hit+pad |
Bm_readout(Bm_n) |
| Bm_x[Bm_n][2][3] | Float_t | Position of the extrapolated VCATCAL track in the matching-plane (HERA frame) | Bm_x(3,2,Bm_n) |
| Bm_p[Bm_n][2][3] | Float_t | Momentum of the extrapolated VCATCAL track in the matching-plane (HERA frame) | Bm_p(3,2,Bm_n) |
| Bm_chi2[Bm_n][2] | Float_t | Chi2/Ndof of matching. The set of SD parameters being compared(i.e. used to calculate chi2) depends on BAC readout: Hit+Pad : W', V, W (Ndof = 3) Hit only: W', W (Ndof = 2) Pad only: V , W (Ndof = 2) W - position along the perpendicular-to-the-wires axis, in the matching plane V - positoin along the along-the-wires axis, in the matching plane W' - slope in the perpendicular-to-the-wires plane V' - slope in the along-the-wires-,-perpendicular-to-the-matching-plane plane |
Bm_chi2(2,Bm_n) |
| Bm_dca[Bm_n][2] | Float_t | Distance between the extraplated VCATCAL track and the BAC track in the matching plane (HERA frame). BAC track position is propagated(should say "reduced"?) to the matching-plane |
Bm_dca(2,Bm_n) |
| Bm_gcov[Bm_n][2][15] | Float_t | Extrapolated VCATCAL track error matrix (from GEANE) in the matching-plane in SD parametrization: (1/p; v'; w'; v; w). Diagonal elements are 1st, 6th, 10th, 13th and 15th. SD reference plane is the matching-plane. see GEANE documentation for detailed explanation of SD parametrisation. |
Bm_gcov(15,2,Bm_n) |
| Bm_fcov[Bm_n][2][10] | Float_t | Full (GEANE extrapolation + BAC measurment) error matrix in the matching-plane in SD parametrization, but without momentum terms: (v'; w'; v; w). Diagonal elements are 1st, 5th, 8th and 10th. Reference plane is the matching-plane. |
Bm_fcov(10,2,Bm_n) |
| Bm_resloc[Bm_n][2][4] | Float_t | Residuals = measured - predicted SD parameters (v'; w'; v; w) (Stored in the same order) |
Bm_resloc(4,2,Bm_n) |
| Bm_prob[Bm_n][2] | Float_t | Probability of matching (from Chi2, Ndof) | Bm_prob(2,Bm_n) |
| Bm_zpen[Bm_n][2] | Float_t | "z penalty". Being calculated only in case of hit-only readout. if ( V_residual > length_of_wire/2 ) then Ora_Bm_zpen = ( V_residual - length_of_wire/2 )/ V_extrapolation_error else Ora_Bm_zpen = 0 |
Bm_zpen(2,Bm_n) |
| Bm_dlh[Bm_n] | Float_t | "Distance to the Last Hit". If VCATCAL track has not enough momentum to reach the outermost-hit-plane, then Ora_Bm_dlh = distance_to_the_last_hit_plane / cos(average_slope_of_the_VCATCAL_track_in_BAC) |
Bm_dlh(Bm_n) |
| Block: BM_MUBAC | |||
| root name | type | description | orange name |
| Bm_mubac_n | Int_t | number of tracks, reconstructed in BAC | Bm_mubac_n |
| Bm_mubac_hit[Bm_mubac_n] | Int_t | 1, if wire readout present, 0 otherwise | Bm_mubac_hit(Bm_mubac_n) |
| Bm_mubac_pad[Bm_mubac_n] | Int_t | 1, if pad readout present, 0 otherwise | Bm_mubac_pad(Bm_mubac_n) |
| Bm_mubac_unit[Bm_mubac_n] | Int_t | 1 for barrel, 2 - forecap, 3 - rearcap | Bm_mubac_unit(Bm_mubac_n) |
| Bm_mubac_hp1[Bm_mubac_n] | Int_t | Hit pattern in XLayers 1-6 | Bm_mubac_hp1(Bm_mubac_n) |
| Bm_mubac_hp2[Bm_mubac_n] | Int_t | number of hits in XLayers 7-12 | Bm_mubac_hp2(Bm_mubac_n) |
| Bm_mubac_xyz[Bm_mubac_n][3] | Float_t | bac track position | Bm_mubac_xyz(3,Bm_mubac_n) |
| Bm_mubac_dxyz[Bm_mubac_n][3] | Float_t | bac track position error | Bm_mubac_dxyz(3,Bm_mubac_n) |
| Bm_mubac_cos[Bm_mubac_n][3] | Float_t | bac track direction | Bm_mubac_cos(3,Bm_mubac_n) |
| Bm_mubac_plf[Bm_mubac_n][5][3] | Float_t | 2 vectors defining plane orientation, 3 points defining position of planes |
Bm_mubac_plf(3,5,Bm_mubac_n) |
| Block: HiEtCell | |||
| root name | type | description | orange name |
| Et_maxisl | Float_t | Et of island containing highest Et cell | Et_maxisl |
| Ptmhietcell | Float_t | Pt excluding highest Et cell | Ptmhietcell |
| Pt_mimbal | Float_t | Pt excluding cells with imbalance > 0.8 | Pt_mimbal |
| Hietcell_type | Int_t | cell type of highest Et cell | Hietcell_type |
| Hietcell_nr | Int_t | cell number of highest Et cell | Hietcell_nr |
| Hietcell_px | Float_t | Px of highest Et cell | Hietcell_px |
| Hietcell_py | Float_t | Py of highest Et cell | Hietcell_py |
| Hietcell_pz | Float_t | Pz of highest Et cell | Hietcell_pz |
| Hietcell_et | Float_t | Et of highest Et cell | Hietcell_et |
| Hietcell_imbal | Float_t | Imbalance (GeV) of highest Et Cell | Hietcell_imbal |
| Hietcell_e | Float_t | Energy of highest Et cell | Hietcell_e |
| Block: ktJETS_A | |||
| Zufos, without removal of electron candidate, are used as input for jet algorithm. Massive jets are reconstructed with E-scheme and in inclusive mode. Dead material corrections are applied. Information about 10 jets in laboratory frame is saved. Jets are required to have transverse energy greater than 2.5 GeV and pseudorapidity in range from -2.5 to 2.5. | |||
| root name | type | description | orange name |
| Kt_njet_a | Int_t | Number of jets found by KT jet finder A | Kt_njet_a |
| Kt_etjet_a[KT_NJET_A] | Float_t | Et of jets found by KT jet finder A (cut et > 2.5) | Kt_etjet_a(KT_NJET_A) |
| Kt_etajet_a[KT_NJET_A] | Float_t | Eta of jets found by KT jet finder A (cut -2.5 < eta < 2.5) | Kt_etajet_a(KT_NJET_A) |
| Kt_phijet_a[KT_NJET_A] | Float_t | Phi of jets found by KT jet finder A | Kt_phijet_a(KT_NJET_A) |
| Kt_masjet_a[KT_NJET_A] | Float_t | Mass of jets found by KT jet finder A | Kt_masjet_a(KT_NJET_A) |
| Block: ktJETS_B | |||
| Zufos, without Sinistra-flagged electron candidate, are used as input for jet algorithm. Massive jets are reconstructed in laboratory frame with E-scheme and in inclusive mode. Dead material corrections are applied. Information about 10 jets in laboratory frame is saved. Jets are required to have transverse energy greater than 2.5 GeV and pseudorapidity in range from -2.5 to 2.5. | |||
| root name | type | description | orange name |
| Kt_njet_b | Int_t | Number of jets found by KT jet finder B | Kt_njet_b |
| Kt_etjet_b[KT_NJET_B] | Float_t | Et of jets found by KT jet finder B (cut et > 2.5) | Kt_etjet_b(KT_NJET_B) |
| Kt_etajet_b[KT_NJET_B] | Float_t | Eta of jets found by KT jet finder B (cut -2.5 < eta < 2.5) | Kt_etajet_b(KT_NJET_B) |
| Kt_phijet_b[KT_NJET_B] | Float_t | Phi of jets found by KT jet finder B | Kt_phijet_b(KT_NJET_B) |
| Kt_masjet_b[KT_NJET_B] | Float_t | Mass of jets found by KT jet finder B | Kt_masjet_b(KT_NJET_B) |
| Kt_bst_b[4] | Float_t | boost vector for kt jet finder B | Kt_bst_b(4) |
| Block: ktJETS_C | |||
| Zufos, without Sinistra-flagged electron candidate, are used as input for jet algorithm. Massive jets are reconstructed in Breit frame with E-scheme and in inclusive mode. Dead material corrections are applied. Information about 10 jets in laboratory frame is saved. Jets are required to have transverse energy greater than 2.5 GeV and pseudorapidity in range from -2.5 to 2.5. | |||
| root name | type | description | orange name |
| Kt_njet_c | Int_t | Number of jets found by KT jet finder C | Kt_njet_c |
| Kt_etjet_c[KT_NJET_C] | Float_t | Et of jets found by KT jet finder C (cut et > 2.5) | Kt_etjet_c(KT_NJET_C) |
| Kt_etajet_c[KT_NJET_C] | Float_t | Eta of jets found by KT jet finder C (cut -2.5 < eta < 2.5) | Kt_etajet_c(KT_NJET_C) |
| Kt_phijet_c[KT_NJET_C] | Float_t | Phi of jets found by KT jet finder C | Kt_phijet_c(KT_NJET_C) |
| Kt_masjet_c[KT_NJET_C] | Float_t | Mass of jets found by KT jet finder C | Kt_masjet_c(KT_NJET_C) |
| Kt_bst_c[4] | Float_t | boost vector for kt jet finder C | Kt_bst_c(4) |
| Block: ktJETS_D | |||
| Zufos, without Sinistra-flagged electron candidate, are used as input for jet algorithm. Massive jets are reconstructed in Breit frame with E-scheme and in inclusive mode. Dead material corrections are applied. Information about 10 jets in Breit frame is saved. Jets are required to have transverse energy greater than 2.5 GeV and pseudorapidity in range from -2.5 to 2.5. | |||
| root name | type | description | orange name |
| Kt_njet_d | Int_t | Number of jets found by KT jet finder D | Kt_njet_d |
| Kt_etjet_d[KT_NJET_D] | Float_t | Et of jets found by KT jet finder D (cut et > 2.5) | Kt_etjet_d(KT_NJET_D) |
| Kt_etajet_d[KT_NJET_D] | Float_t | Eta of jets found by KT jet finder D (cut -2.5 < eta < 2.5) | Kt_etajet_d(KT_NJET_D) |
| Kt_phijet_d[KT_NJET_D] | Float_t | Phi of jets found by KT jet finder D | Kt_phijet_d(KT_NJET_D) |
| Kt_masjet_d[KT_NJET_D] | Float_t | Mass of jets found by KT jet finder D | Kt_masjet_d(KT_NJET_D) |
| Kt_bst_d[4] | Float_t | boost vector for kt jet finder D | Kt_bst_d(4) |
| Block: ktJETS_E | |||
| Zufos, without Sinistra-flagged electron candidate, are used as input for jet algorithm. Massless jets are reconstructed in Breit frame with pt-scheme and in inclusive mode. Dead material corrections are applied. Information about 10 jets in laboratory frame is saved. Jets are required to have transverse energy greater than 2.5 GeV and pseudorapidity in range from -2.5 to 4. | |||
| root name | type | description | orange name |
| Kt_njet_e | Int_t | Number of jets found by KT jet finder E | Kt_njet_e |
| Kt_etjet_e[KT_NJET_E] | Float_t | Et of jets found by KT jet finder E (cut et > 2.5) | Kt_etjet_e(KT_NJET_E) |
| Kt_etajet_e[KT_NJET_E] | Float_t | Eta of jets found by KT jet finder E (cut -2.5 < eta < 4) | Kt_etajet_e(KT_NJET_E) |
| Kt_phijet_e[KT_NJET_E] | Float_t | Phi of jets found by KT jet finder E | Kt_phijet_e(KT_NJET_E) |
| Kt_bst_e[4] | Float_t | boost vector for kt jet finder E | Kt_bst_e(4) |
| Block: ktJETS_F | |||
| Zufos, without Sinistra-flagged electron candidate, are used as input for jet algorithm. Massless jets are reconstructed in Breit frame (using DA method) with pt-scheme and in inclusive mode. Dead material corrections are applied. Information about 10 jets in laboratory frame is saved. Jets are required to have transverse energy greater than 2.5 GeV and pseudorapidity in range from -2.5 to 4. | |||
| root name | type | description | orange name |
| Kt_njet_f | Int_t | Number of jets found by KT jet finder F | Kt_njet_f |
| Kt_etjet_f[KT_NJET_F] | Float_t | Et of jets found by KT jet finder F (cut et > 2.5) | Kt_etjet_f(KT_NJET_F) |
| Kt_etajet_f[KT_NJET_F] | Float_t | Eta of jets found by KT jet finder F (cut -2.5 < eta < 4) | Kt_etajet_f(KT_NJET_F) |
| Kt_phijet_f[KT_NJET_F] | Float_t | Phi of jets found by KT jet finder F | Kt_phijet_f(KT_NJET_F) |
| Kt_bst_f[4] | Float_t | boost vector for kt jet finder F | Kt_bst_f(4) |
| Block: ktJETS_G | |||
| Zufos, without Sinistra-flagged electron candidate, are used as input for jet algorithm. Massless jets are reconstructed in Breit frame with pt-scheme and in inclusive mode. Dead material corrections are applied. Information about 10 jets in Breit frame is saved. Jets are required to have transverse energy greater than 2.5 GeV and pseudorapidity in range from -2.5 to 4. | |||
| root name | type | description | orange name |
| Kt_njet_g | Int_t | Number of jets found by KT jet finder G | Kt_njet_g |
| Kt_etjet_g[KT_NJET_G] | Float_t | Et of jets found by KT jet finder G (cut et > 2.5) | Kt_etjet_g(KT_NJET_G) |
| Kt_etajet_g[KT_NJET_G] | Float_t | Eta of jets found by KT jet finder G (cut -2.5 < eta < 4) | Kt_etajet_g(KT_NJET_G) |
| Kt_phijet_g[KT_NJET_G] | Float_t | Phi of jets found by KT jet finder G | Kt_phijet_g(KT_NJET_G) |
| Kt_bst_g[4] | Float_t | boost vector for kt jet finder G | Kt_bst_g(4) |
| Block: ktJETS_H | |||
| Zufos, without Sinistra-flagged electron candidate, are used as input for jet algorithm. Massless jets are reconstructed in Breit frame (established with DA method) with pt-scheme and in inclusive mode. Dead material corrections are applied. Information about 10 jets in Breit frame is saved. Jets are required to have transverse energy greater than 2.5 GeV and pseudorapidity in range from -2.5 to 4. | |||
| root name | type | description | orange name |
| Kt_njet_h | Int_t | Number of jets found by KT jet finder H | Kt_njet_h |
| Kt_etjet_h[KT_NJET_H] | Float_t | Et of jets found by KT jet finder H (cut et > 2.5) | Kt_etjet_h(KT_NJET_H) |
| Kt_etajet_h[KT_NJET_H] | Float_t | Eta of jets found by KT jet finder H (cut -2.5 < eta < 4) | Kt_etajet_h(KT_NJET_H) |
| Kt_phijet_h[KT_NJET_H] | Float_t | Phi of jets found by KT jet finder H | Kt_phijet_h(KT_NJET_H) |
| Kt_bst_h[4] | Float_t | boost vector for kt jet finder H | Kt_bst_h(4) |
| Block: ktJETS_I | |||
| Zufos, without removal of electron candidate, are used as input for jet algorithm. Massless jets are reconstructed in laboratory frame with pt-scheme and in inclusive mode. Dead material corrections are applied. Information about 10 jets in laboratory frame is saved. Jets are required to have transverse energy greater than 4.0 GeV and pseudorapidity in range from -2.5 to 4. | |||
| root name | type | description | orange name |
| Kt_njet_i | Int_t | Number of jets found by KT jet finder I | Kt_njet_i |
| Kt_etjet_i[KT_NJET_I] | Float_t | Et of jets found by KT jet finder I (cut et > 4) | Kt_etjet_i(KT_NJET_I) |
| Kt_etajet_i[KT_NJET_I] | Float_t | Eta of jets found by KT jet finder I (cut -2.5 < eta < 4) | Kt_etajet_i(KT_NJET_I) |
| Kt_phijet_i[KT_NJET_I] | Float_t | Phi of jets found by KT jet finder I | Kt_phijet_i(KT_NJET_I) |
| Block: ktJETS_J | |||
| Calorimeter cells, without removal of electron candidate, are used as input for jet algorithm. Massless jets are reconstructed in laboratory frame with pt-scheme and fixed scale. No dead material corrections are applied. Information about 10 jets in laboratory frame is saved. Jets are required to have transverse energy greater than 4.0 GeV and pseudorapidity in range from -2.5 to 4. | |||
| root name | type | description | orange name |
| Kt_njet_j | Int_t | Number of jets found by KT jet finder J | Kt_njet_j |
| Kt_etjet_j[KT_NJET_J] | Float_t | Et of jets found by KT jet finder J (cut et > 4) | Kt_etjet_j(KT_NJET_J) |
| Kt_etajet_j[KT_NJET_J] | Float_t | Eta of jets found by KT jet finder J (cut -2.5 < eta < 4) | Kt_etajet_j(KT_NJET_J) |
| Kt_phijet_j[KT_NJET_J] | Float_t | Phi of jets found by KT jet finder J | Kt_phijet_j(KT_NJET_J) |
| Block: ktJETS_K | |||
| Islands, without removal of electron candidate, are used as input for jet algorithm. Massless jets are reconstructed in laboratory frame with pt-scheme and in inclusive mode. No dead material corrections are applied. Information about 10 jets in laboratory frame is saved. Jets are required to have transverse energy greater than 4.0 GeV and pseudorapidity in range from -3 to 3. | |||
| root name | type | description | orange name |
| Kt_njet_k | Int_t | Number of jets found by KT jet finder K | Kt_njet_k |
| Kt_etjet_k[KT_NJET_K] | Float_t | Et of jets found by KT jet finder K (cut et > 4) | Kt_etjet_k(KT_NJET_K) |
| Kt_etajet_k[KT_NJET_K] | Float_t | Eta of jets found by KT jet finder K (cut -3 < eta < 3) | Kt_etajet_k(KT_NJET_K) |
| Kt_phijet_k[KT_NJET_K] | Float_t | Phi of jets found by KT jet finder K | Kt_phijet_k(KT_NJET_K) |
| Kt_bst_k[4] | Float_t | boost vector for kt jet finder K | Kt_bst_k(4) |
| Block: ktJETS_L | |||
| Islands, with removed scattered electron energy clusters found by EM, are used as input for jet algorithm. Massless jets are reconstructed in laboratory frame with pt scheme and in inclusive mode. No dead material corrections are applied. Information about 10 jets in laboratory frame is saved. Jets are required to have transverse energy greater than 4.0 GeV and pseudorapidity in range from -3 to 3. | |||
| root name | type | description | orange name |
| Kt_njet_l | Int_t | Number of jets found by KT jet finder L | Kt_njet_l |
| Kt_etjet_l[KT_NJET_L] | Float_t | Et of jets found by KT jet finder L (cut et > 4) | Kt_etjet_l(KT_NJET_L) |
| Kt_etajet_l[KT_NJET_L] | Float_t | Eta of jets found by KT jet finder L (cut -3 < eta < 3) | Kt_etajet_l(KT_NJET_L) |
| Kt_phijet_l[KT_NJET_L] | Float_t | Phi of jets found by KT jet finder L | Kt_phijet_l(KT_NJET_L) |
| Kt_bst_l[4] | Float_t | boost vector for kt jet finder L | Kt_bst_l(4) |
| Block: coneJETS | |||
| CAL cells, with removed scattered electron energy clusters found by EM, are used as input for jet algorithm. Cone algorithm is run with radius 1 and seed 0.5. Massless jets are reconstructed in laboratory frame. Jets are required to have transverse momentum greater than 2.5 GeV and pseudorapidity in range from -2 to 3.2. | |||
| root name | type | description | orange name |
| Cone_njet | Int_t | number of cone jets | Cone_njet |
| Cone_etjet[CONE_NJET] | Float_t | Et for cone jets | Cone_etjet(CONE_NJET) |
| Cone_etajet[CONE_NJET] | Float_t | Eta for cone jets (cut -2 < eta < 3) | Cone_etajet(CONE_NJET) |
| Cone_phijet[CONE_NJET] | Float_t | Phi for cone jets | Cone_phijet(CONE_NJET) |
| Block: LUMI | |||
| root name | type | description | orange name |
| Elumie | Float_t | Energy in Lumi el. | Elumie |
| Xlumie | Float_t | X position in Lumi el. | Xlumie |
| Ylumie | Float_t | Y position in Lumi el. | Ylumie |
| Elumig | Float_t | Energy in Lumi gamma (-abs(Energy) if info is unreliable) |
Elumig |
| Xlumig | Float_t | X position in Lumi gamma | Xlumig |
| Ylumig | Float_t | Y position in Lumi gamma | Ylumig |
| Block: MCDSTAR | |||
| root name | type | description | orange name |
| Nmcdstar | Int_t | number of D*'s found in FMCKin | Nmcdstar |
| Imcdstar[nmcdstar] | Int_t | charge of the D* | Imcdstar(nmcdstar) |
| Ptmcdstar[nmcdstar] | Float_t | D* transverse momentum | Ptmcdstar(nmcdstar) |
| Etamcdstar[nmcdstar] | Float_t | D* pseudo-rapidity | Etamcdstar(nmcdstar) |
| Phimcdstar[nmcdstar] | Float_t | D* azimuth | Phimcdstar(nmcdstar) |
| Block: MC_dsd02 | |||
| root name | type | description | orange name |
| Ndsd02 | Int_t | number of D*+/- -> D0,pi-s -> (1,2),pi-s decays [0,20] (FMCKin level) 1, 2 can be pi+/-, K+/- |
Ndsd02 |
| Pdsd02[ndsd02][2] | Float_t | momentum (P) of (1,2) | Pdsd02(2,ndsd02) |
| Tdsd02[ndsd02][2] | Float_t | polar angle (theta) of (1,2) | Tdsd02(2,ndsd02) |
| Fdsd02[ndsd02][2] | Float_t | azimuthal angle (Phi) of (1,2) | Fdsd02(2,ndsd02) |
| Kdsd02[ndsd02][2] | Int_t | FMCPRT codes of (1,2) | Kdsd02(2,ndsd02) |
| Pdsps2[ndsd02] | Float_t | momentum (P) of pi-s | Pdsps2(ndsd02) |
| Tdsps2[ndsd02] | Float_t | polar angle (theta) of pi-s | Tdsps2(ndsd02) |
| Fdsps2[ndsd02] | Float_t | azimuthal angle (Phi) of pi-s | Fdsps2(ndsd02) |
| Pmds2[ndsd02][4] | Float_t | 4-momentum of D* mother | Pmds2(4,ndsd02) |
| Kmds2[ndsd02] | Int_t | FMCPRT code of D* mother ( *(-1) if mother decays to D*,K0l or D*,K0s(->pi0,pi0) ) |
Kmds2(ndsd02) |
| Nmds2[ndsd02] | Int_t | number of daughters of this mother ( *(-1) if mother decays to D*,K0l ) |
Nmds2(ndsd02) |
| Block: MC_dsd04 | |||
| root name | type | description | orange name |
| Ndsd04 | Int_t | number of D*+/- -> D0,pi-s -> (1,2,3,4),pi-s decays [0,20] (FMCKin level) 1, 2, 3, 4 can be pi+/-, K+/- |
Ndsd04 |
| Pdsd04[ndsd04][4] | Float_t | momentum (P) of (1,2,3,4) | Pdsd04(4,ndsd04) |
| Tdsd04[ndsd04][4] | Float_t | polar angle (theta) of (1,2,3,4) | Tdsd04(4,ndsd04) |
| Fdsd04[ndsd04][4] | Float_t | azimuthal angle (Phi) of (1,2,3,4) | Fdsd04(4,ndsd04) |
| Kdsd04[ndsd04][4] | Int_t | FMCPRT codes of (1,2,3,4) | Kdsd04(4,ndsd04) |
| Mdsd04[ndsd04][4] | Int_t | FMCPRT codes of (1,2,3,4) mothers | Mdsd04(4,ndsd04) |
| Pdsps4[ndsd04] | Float_t | momentum (P) of pi-s | Pdsps4(ndsd04) |
| Tdsps4[ndsd04] | Float_t | polar angle (theta) of pi-s | Tdsps4(ndsd04) |
| Fdsps4[ndsd04] | Float_t | azimuthal angle (Phi) of pi-s | Fdsps4(ndsd04) |
| Pmds4[ndsd04][4] | Float_t | 4-momentum of D* mother | Pmds4(4,ndsd04) |
| Kmds4[ndsd04] | Int_t | FMCPRT code of D* mother ( *(-1) if mother decays to D*,K0l or D*,K0s(->pi0,pi0) ) |
Kmds4(ndsd04) |
| Nmds4[ndsd04] | Int_t | number of daughters of this mother ( *(-1) if mother decays to D*,K0l ) |
Nmds4(ndsd04) |
| Block: MC_dzd02 | |||
| root name | type | description | orange name |
| Ndzd02 | Int_t | number of D*0 -> D0,gamma/pi0 ->(1,2),gamma/pi0 decays [0,20] (FMCKin level) 1, 2 can be pi+/-, K+/- |
Ndzd02 |
| Pdzd02[ndzd02][2] | Float_t | momentum (P) of (1,2) | Pdzd02(2,ndzd02) |
| Tdzd02[ndzd02][2] | Float_t | polar angle (theta) of (1,2) | Tdzd02(2,ndzd02) |
| Fdzd02[ndzd02][2] | Float_t | azimuthal angle (Phi) of (1,2) | Fdzd02(2,ndzd02) |
| Kdzd02[ndzd02][2] | Int_t | FMCPRT codes of (1,2) | Kdzd02(2,ndzd02) |
| Pdzga2[ndzd02] | Float_t | momentum (P) of gamma/pi0 (*(-1) if pi0) | Pdzga2(ndzd02) |
| Tdzga2[ndzd02] | Float_t | polar angle (theta) of gamma/pi0 | Tdzga2(ndzd02) |
| Fdzga2[ndzd02] | Float_t | azimuthal angle (Phi) of gamma/pi0 | Fdzga2(ndzd02) |
| Pmdz2[ndzd02][4] | Float_t | 4-momentum of D* mother | Pmdz2(4,ndzd02) |
| Kmdz2[ndzd02] | Int_t | FMCPRT code of D* mother ( *(-1) if mother decays to D*,K0l or D*,K0s(->pi0,pi0) ) |
Kmdz2(ndzd02) |
| Nmdz2[ndzd02] | Int_t | number of daughters of this mother ( *(-1) if mother decays to D*,K0l ) |
Nmdz2(ndzd02) |
| Block: MC_dzd04 | |||
| root name | type | description | orange name |
| Ndzd04 | Int_t | number of D*0 -> D0,gamma/pi0 -> (1,2,3,4),gamma/pi0 decays [0,20] (FMCKin level) 1, 2, 3, 4 can be pi+/-, K+/- |
Ndzd04 |
| Pdzd04[ndzd04][4] | Float_t | momentum (P) of (1,2,3,4) | Pdzd04(4,ndzd04) |
| Tdzd04[ndzd04][4] | Float_t | polar angle (theta) of (1,2,3,4) | Tdzd04(4,ndzd04) |
| Fdzd04[ndzd04][4] | Float_t | azimuthal angle (Phi) of (1,2,3,4) | Fdzd04(4,ndzd04) |
| Kdzd04[ndzd04][4] | Int_t | FMCPRT codes of (1,2,3,4) | Kdzd04(4,ndzd04) |
| Mdzd04[ndzd04][4] | Int_t | FMCPRT codes of (1,2,3,4) mothers | Mdzd04(4,ndzd04) |
| Pdzga4[ndzd04] | Float_t | momentum (P) of gamma/pi0 (*(-1) if pi0) | Pdzga4(ndzd04) |
| Tdzga4[ndzd04] | Float_t | polar angle (theta) of gamma/pi0 | Tdzga4(ndzd04) |
| Fdzga4[ndzd04] | Float_t | azimuthal angle (Phi) of gamma/pi0 | Fdzga4(ndzd04) |
| Pmdz4[ndzd04][4] | Float_t | 4-momentum of D* mother | Pmdz4(4,ndzd04) |
| Kmdz4[ndzd04] | Int_t | FMCPRT code of D* mother ( *(-1) if mother decays to D*,K0l or D*,K0s(->pi0,pi0) ) |
Kmdz4(ndzd04) |
| Nmdz4[ndzd04] | Int_t | number of daughters of this mother ( *(-1) if mother decays to D*,K0l ) |
Nmdz4(ndzd04) |
| Block: MC_d02 | |||
| root name | type | description | orange name |
| Nd02 | Int_t | number of D0 (not from D*) -> (1,2) decays [0,20] (FMCKin level) 1, 2 can be pi+/-, K+/- |
Nd02 |
| Pd02[nd02][2] | Float_t | momentum (P) of (1,2) | Pd02(2,nd02) |
| Td02[nd02][2] | Float_t | polar angle (theta) of (1,2) | Td02(2,nd02) |
| Fd02[nd02][2] | Float_t | azimuthal angle (Phi) of (1,2) | Fd02(2,nd02) |
| Kd02[nd02][2] | Int_t | FMCPRT codes of (1,2) | Kd02(2,nd02) |
| Pmd02[nd02][4] | Float_t | 4-momentum of D mother | Pmd02(4,nd02) |
| Kmd02[nd02] | Int_t | FMCPRT code of D mother ( *(-1) if mother decays to D,K0l or D,K0s(->pi0,pi0) ) |
Kmd02(nd02) |
| Nmd02[nd02] | Int_t | number of daughters of this mother ( *(-1) if mother decays to D,K0l ) |
Nmd02(nd02) |
| Block: MC_d04 | |||
| root name | type | description | orange name |
| Nd04 | Int_t | number of D0 (not from D*) ->(1,2,3,4) decays [0,20] (FMCKin level) 1, 2, 3, 4 can be pi+/-, K+/- |
Nd04 |
| Pd04[nd04][4] | Float_t | momentum (P) of (1,2,3,4) | Pd04(4,nd04) |
| Td04[nd04][4] | Float_t | polar angle (theta) of (1,2,3,4) | Td04(4,nd04) |
| Fd04[nd04][4] | Float_t | azimuthal angle (Phi) of (1,2,3,4) | Fd04(4,nd04) |
| Kd04[nd04][4] | Int_t | FMCPRT codes of (1,2,3,4) | Kd04(4,nd04) |
| Md04[nd04][4] | Int_t | FMCPRT codes of (1,2,3,4) mothers | Md04(4,nd04) |
| Pmd04[nd04][4] | Float_t | 4-momentum of D mother | Pmd04(4,nd04) |
| Kmd04[nd04] | Int_t | FMCPRT code of D mother ( *(-1) if mother decays to D,K0l or D,K0s(->pi0,pi0) ) |
Kmd04(nd04) |
| Nmd04[nd04] | Int_t | number of daughters of this mother ( *(-1) if mother decays to D,K0l ) |
Nmd04(nd04) |
| Block: MC_dsdch | |||
| root name | type | description | orange name |
| Ndsdch | Int_t | number of D*+/- -> D+/-,gamma/pi0 ->(1,2,3),gamma/pi0 decays [0,20] (FMCKin level) 1, 2, 3 can be pi+/-, K+/- |
Ndsdch |
| Pdsdch[ndsdch][3] | Float_t | momentum (P) of (1,2,3) | Pdsdch(3,ndsdch) |
| Tdsdch[ndsdch][3] | Float_t | polar angle (theta) of (1,2,3) | Tdsdch(3,ndsdch) |
| Fdsdch[ndsdch][3] | Float_t | azimuthal angle (Phi) of (1,2,3) | Fdsdch(3,ndsdch) |
| Kdsdch[ndsdch][3] | Int_t | FMCPRT codes of (1,2,3) | Kdsdch(3,ndsdch) |
| Mdsdch[ndsdch][3] | Int_t | FMCPRT codes of (1,2,3) mothers | Mdsdch(3,ndsdch) |
| Pdsgah[ndsdch] | Float_t | momentum (P) of gamma/pi0 (*(-1) if pi0) | Pdsgah(ndsdch) |
| Tdsgah[ndsdch] | Float_t | polar angle (theta) of gamma/pi0 | Tdsgah(ndsdch) |
| Fdsgah[ndsdch] | Float_t | azimuthal angle (Phi) of gamma/pi0 | Fdsgah(ndsdch) |
| Pmdsh[ndsdch][4] | Float_t | 4-momentum of D* mother | Pmdsh(4,ndsdch) |
| Kmdsh[ndsdch] | Int_t | FMCPRT code of D* mother ( *(-1) if mother decays to D*,K0l or D*,K0s(->pi0,pi0) ) |
Kmdsh(ndsdch) |
| Nmdsh[ndsdch] | Int_t | number of daughters of this mother ( *(-1) if mother decays to D*,K0l ) |
Nmdsh(ndsdch) |
| Block: MC_dch | |||
| root name | type | description | orange name |
| Ndch | Int_t | number of D+/- (not from D*) -> (1,2,3) decays [0,20] (FMCKin level) 1, 2, 3 can be pi+/-, K+/- |
Ndch |
| Pdch[ndch][3] | Float_t | momentum (P) of (1,2,3) | Pdch(3,ndch) |
| Tdch[ndch][3] | Float_t | polar angle (theta) of (1,2,3) | Tdch(3,ndch) |
| Fdch[ndch][3] | Float_t | azimuthal angle (Phi) of (1,2,3) | Fdch(3,ndch) |
| Kdch[ndch][3] | Int_t | FMCPRT codes of (1,2,3) | Kdch(3,ndch) |
| Mdch[ndch][3] | Int_t | FMCPRT codes of (1,2,3) mothers | Mdch(3,ndch) |
| Pmdch[20][4] | Float_t | 4-momentum of D mother | Pmdch(4,20) |
| Kmdch[20] | Int_t | FMCPRT code of D mother ( *(-1) if mother decays to D,K0l or D,K0s(->pi0,pi0) ) |
Kmdch(20) |
| Nmdch[20] | Int_t | number of daughters of this mother ( *(-1) if mother decays to D,K0l ) |
Nmdch(20) |
| Block: MC_dtdss | |||
| root name | type | description | orange name |
| Ndtdss | Int_t | number of D*s ->Ds,gamma/pi0 ->(1,2,3),gamma/pi0 decays [0,20] (FMCKin level) 1, 2, 3 can be pi+/-, K+/- |
Ndtdss |
| Pdtdss[ndtdss][3] | Float_t | momentum (P) of (1,2,3) | Pdtdss(3,ndtdss) |
| Tdtdss[ndtdss][3] | Float_t | polar angle (theta) of (1,2,3) | Tdtdss(3,ndtdss) |
| Fdtdss[ndtdss][3] | Float_t | azimuthal angle (Phi) of (1,2,3) | Fdtdss(3,ndtdss) |
| Kdtdss[ndtdss][3] | Int_t | FMCPRT codes of (1,2,3) | Kdtdss(3,ndtdss) |
| Mdtdss[ndtdss][3] | Int_t | FMCPRT codes of (1,2,3) mothers | Mdtdss(3,ndtdss) |
| Pdtgas[ndtdss] | Float_t | momentum (P) of gamma/pi0 (*(-1) if pi0) | Pdtgas(ndtdss) |
| Tdtgas[ndtdss] | Float_t | polar angle (theta) of gamma/pi0 | Tdtgas(ndtdss) |
| Fdtgas[ndtdss] | Float_t | azimuthal angle (Phi) of gamma/pi0 | Fdtgas(ndtdss) |
| Pmdts[ndtdss][4] | Float_t | 4-momentum of D* mother | Pmdts(4,ndtdss) |
| Kmdts[ndtdss] | Int_t | FMCPRT code of D* mother ( *(-1) if mother decays to D*,K0l or D*,K0s(->pi0,pi0) ) |
Kmdts(ndtdss) |
| Nmdts[ndtdss] | Int_t | number of daughters of this mother ( *(-1) if mother decays to D*,K0l ) |
Nmdts(ndtdss) |
| Block: MC_dss | |||
| root name | type | description | orange name |
| Ndss | Int_t | number of Ds (not from D*) ->(1,2,3) decays [0,20] (FMCKin level) 1, 2, 3 can be pi+/-, K+/- |
Ndss |
| Pdss[ndss][3] | Float_t | momentum (P) of (1,2,3) | Pdss(3,ndss) |
| Tdss[ndss][3] | Float_t | polar angle (theta) of (1,2,3) | Tdss(3,ndss) |
| Fdss[ndss][3] | Float_t | azimuthal angle (Phi) of (1,2,3) | Fdss(3,ndss) |
| Kdss[ndss][3] | Int_t | FMCPRT codes of (1,2,3) | Kdss(3,ndss) |
| Mdss[ndss][3] | Int_t | FMCPRT codes of (1,2,3) mothers | Mdss(3,ndss) |
| Pmdss[ndss][4] | Float_t | 4-momentum of D mother | Pmdss(4,ndss) |
| Kmdss[ndss] | Int_t | FMCPRT code of D mother ( *(-1) if mother decays to D,K0l or D,K0s(->pi0,pi0) ) |
Kmdss(ndss) |
| Nmdss[ndss] | Int_t | number of daughters of this mother ( *(-1) if mother decays to D,K0l ) |
Nmdss(ndss) |
| Block: MC_dla | |||
| root name | type | description | orange name |
| Ndla | Int_t | number of L_c ->(1,2,3) decays [0,20] (FMCKin level) 1, 2, 3 can be pi+/-, K+/-, p+/- |
Ndla |
| Pdla[ndla][3] | Float_t | momentum (P) of (1,2,3) | Pdla(3,ndla) |
| Tdla[ndla][3] | Float_t | polar angle (theta) of (1,2,3) | Tdla(3,ndla) |
| Fdla[ndla][3] | Float_t | azimuthal angle (Phi) of (1,2,3) | Fdla(3,ndla) |
| Kdla[ndla][3] | Int_t | FMCPRT codes of (1,2,3) | Kdla(3,ndla) |
| Mdla[ndla][3] | Int_t | FMCPRT codes of (1,2,3) mothers | Mdla(3,ndla) |
| Pmdla[ndla][4] | Float_t | 4-momentum of L_c mother | Pmdla(4,ndla) |
| Kmdla[ndla] | Int_t | FMCPRT code of L_c mother ( *(-1) if mother decays to L_c,K0l or L_c,K0s(->pi0,pi0) ) |
Kmdla(ndla) |
| Nmdla[ndla] | Int_t | number of daughters of this mother ( *(-1) if mother decays to L_c,K0l ) |
Nmdla(ndla) |
| Block: MCSUMS | |||
| root name | type | description | orange name |
| Mc_ez | Float_t | sum of pz values for particles which should reach CAL | Mc_ez |
| Mc_esum | Float_t | sum of E values for particles which should reach CAL | Mc_esum |
| Mc_etcone | Float_t | sum of Et values for particles outside cutaway region | Mc_etcone |
| Mc_ercal | Float_t | sum of E values in the veto region | Mc_ercal |
| Block: MCKINE | |||
| root name | type | description | orange name |
| Mc_el | Float_t | lepton beam energy | Mc_el |
| Mc_ep | Float_t | proton beam energy | Mc_ep |
| Mc_x | Float_t | Bjorken x (from initial and final leptons) | Mc_x |
| Mc_y | Float_t | Bjorken y (from initial and final leptons) | Mc_y |
| Mc_q2 | Float_t | Bjorken Q2 (from initial and final leptons) | Mc_q2 |
| Mc_mu | Float_t | Bjorken hard scale | Mc_mu |
| Mc_pt | Float_t | partonic PT for LO hard photons | Mc_pt |
| Mc_xpro | Float_t | X proton | Mc_xpro |
| Mc_xgam | Float_t | X gamma | Mc_xgam |
| Mc_xpom | Float_t | X pomeron | Mc_xpom |
| Mc_beta | Float_t | beta | Mc_beta |
| Mc_t | Float_t | t | Mc_t |
| Mc_idl | Int_t | ID of lepton beam | Mc_idl |
| Mc_pidl | Int_t | ID of incoming parton (lepton side) | Mc_pidl |
| Mc_pidp | Int_t | ID of incoming parton (proton side) | Mc_pidp |
| Mc_idfsl | Int_t | ID of final state lepton | Mc_idfsl |
| Mc_pisl[4] | Float_t | Four-momentum of initial state lepton. | Mc_pisl(4) |
| Mc_pisp[4] | Float_t | Four-momentum of initial state proton. | Mc_pisp(4) |
| Mc_pfsl[4] | Float_t | Four-momentum of final state lepton. | Mc_pfsl(4) |
| Mc_pfsph[4] | Float_t | Four-momentum of radiated photon | Mc_pfsph(4) |
| Mc_vtx[3] | Float_t | Montecarlo vertex position | Mc_vtx(3) |
| Mc_ichnn | Int_t | QED radiation flag | Mc_ichnn |
| Mc_subprnr | Int_t | MC subprocess number | Mc_subprnr |
| Block: MCKINECR | |||
| root name | type | description | orange name |
| Mc_q2_cr | Float_t | Q2 (from exchanged photon) | Mc_q2_cr |
| Mc_x_cr | Float_t | x (from exchanged photon) | Mc_x_cr |
| Block: MCVTX | |||
| root name | type | description | orange name |
| Mcvtx[3] | Float_t | true vertex position = FMcvtx_R for row 1 | Mcvtx(3) |
| Block: SimRun | |||
| root name | type | description | orange name |
| Simrun | Int_t | simulated run number | Simrun |
| Block: SIRA | |||
| Candidates are sorted with respect to probability, starting with the highest probability. | |||
| root name | type | description | orange name |
| Sincand | Int_t | Number of candidates | Sincand |
| Sierror | Int_t | Sinistra error code (0=OK) | Sierror |
| Siprob[SiNcand] | Float_t | Electron Probability | Siprob(SiNcand) |
| Sipos[SiNcand][3] | Float_t | CAL+HES+SRTD position | Sipos(3,SiNcand) |
| Sicalpos[SiNcand][3] | Float_t | CAL position | Sicalpos(3,SiNcand) |
| Sicalene[SiNcand] | Float_t | Electron calorimeter energy | Sicalene(SiNcand) |
| Siein[SiNcand] | Float_t | Electron energy in Cone | Siein(SiNcand) |
| Sienin[SiNcand] | Float_t | Energy in Cone not from electron | Sienin(SiNcand) |
| Siecorr[SiNcand][3] | Float_t |
Corrected energy from emEnergyCorrection5.fpp
|
Siecorr(3,SiNcand) |
| Sith[SiNcand] | Float_t | Theta calculated from SiPos | Sith(SiNcand) |
| Siph[SiNcand] | Float_t | Phi calculated from SiPos | Siph(SiNcand) |
| Sipt[SiNcand] | Float_t | Pt calculated from SiPos | Sipt(SiNcand) |
| Sixdet[SiNcand][3] | Int_t | 0=CAL,1=HES,2=SRTD used in x pos (0=no,1=yes) | Sixdet(3,SiNcand) |
| Siydet[SiNcand][3] | Int_t | 0=CAL,1=HES,2=SRTD used in y pos (0=no,1=yes) | Siydet(3,SiNcand) |
| Block: SI_TRK | |||
| root name | type | description | orange name |
| Sitrknr[SiNcand] | Int_t | Track number in VCTRHL | Sitrknr(SiNcand) |
| Sinrsl[SiNcand] | Int_t | Number of hit Super Layers | Sinrsl(SiNcand) |
| Sidca[SiNcand] | Float_t | Distance of Closest Approach | Sidca(SiNcand) |
| Sitrkp[SiNcand] | Float_t | Momentum of the track | Sitrkp(SiNcand) |
| Sitrkth[SiNcand] | Float_t | Theta of the track | Sitrkth(SiNcand) |
| Sitrkph[SiNcand] | Float_t | Phi calculated at the beg. of the trakc | Sitrkph(SiNcand) |
| Sitrkq[SiNcand] | Float_t | Charge of the track | Sitrkq(SiNcand) |
| Sitrkdme[SiNcand] | Float_t | distance to module edge (cm) from Track | Sitrkdme(SiNcand) |
| Sitrkpos[SiNcand][3] | Float_t | extrapolated track position | Sitrkpos(3,SiNcand) |
| Block: SI_DET | |||
| root name | type | description | orange name |
| Sisrtf[SiNcand] | Int_t | SRTD Error Flag | Sisrtf(SiNcand) |
| Sisrtquad[SiNcand] | Int_t | SRTD Quadrant | Sisrtquad(SiNcand) |
| Sihesf[SiNcand] | Int_t | HES Error Flag | Sihesf(SiNcand) |
| Sicorrcode[SiNcand] | Int_t | energy correction code from emenergycorrection5.fpp 1= dead material map 2= SRTD using routine PresCorF 3= Rear Presampler using routine PresCorF 4= Rear Presampler using routine prcorr_3 5= Barrel Presampler using routine EeCorrBCAL |
Sicorrcode(SiNcand) |
| Sisrtpos[SiNcand][2] | Float_t | Position of the electron in the SRTD | Sisrtpos(2,SiNcand) |
| Sisrtene[SiNcand] | Float_t | SRTD Energy | Sisrtene(SiNcand) |
| Sihespos[SiNcand][2] | Float_t | Electron position on the HES (only x and y) | Sihespos(2,SiNcand) |
| Sihesene[SiNcand] | Float_t | HES Energy | Sihesene(SiNcand) |
| Sihesr[SiNcand] | Float_t | HES Ratio?? | Sihesr(SiNcand) |
| Siprsene[SiNcand][3] | Float_t | Electron presampler energy in 3 windows | Siprsene(3,SiNcand) |
| Block: SI_HAD | |||
| root name | type | description | orange name |
| Siccet[SiNcand] | Float_t | Et from CorAndCut | Siccet(SiNcand) |
| Siccempz[SiNcand] | Float_t | E-Pz from CorAndCut | Siccempz(SiNcand) |
| Sietamax[SiNcand] | Float_t | EtaMax from Condensates | Sietamax(SiNcand) |
| Sicehmom[SiNcand][4] | Float_t | Hadronic 4-momentum (cells) | Sicehmom(4,SiNcand) |
| Sizuhmom[SiNcand][4] | Float_t | Hadronic 4-momentum (Zufos) | Sizuhmom(4,SiNcand) |
| Sicchmom[SiNcand][4] | Float_t | Hadronic 4-momentum (CorandCut) | Sicchmom(4,SiNcand) |
| Block: SI_KIN | |||
| root name | type | description | orange name |
| Sixel[SiNcand] | Float_t | x Bjorken calculated with electron method | Sixel(SiNcand) |
| Siyel[SiNcand] | Float_t | inelasticity y calculated with electron method | Siyel(SiNcand) |
| Siq2el[SiNcand] | Float_t | virtuality Q2 calculated with electron method | Siq2el(SiNcand) |
| Sixda[SiNcand] | Float_t | x Bjorken calculated with double-angle method based on zufos | Sixda(SiNcand) |
| Siyda[SiNcand] | Float_t | inelasticity y calculated with double-angle method based on zufos | Siyda(SiNcand) |
| Siq2da[SiNcand] | Float_t | virtuality Q2 calculated with double-angle method based on zufos | Siq2da(SiNcand) |
| Sixda_cell[SiNcand] | Float_t | x Bjorken calculated with double-angle method based on cells | Sixda_cell(SiNcand) |
| Siyda_cell[SiNcand] | Float_t | inelasticity y calculated with double-angle method based on cells | Siyda_cell(SiNcand) |
| Siq2da_cell[SiNcand] | Float_t | virtuality Q2 calculated with double-angle method based on cells | Siq2da_cell(SiNcand) |
| Sixjb[SiNcand] | Float_t | x Bjorken calculated with Jacquet-Blondel method based on zufos | Sixjb(SiNcand) |
| Siyjb[SiNcand] | Float_t | inelasticity y calculated with Jacquet-Blondel method based on zufos | Siyjb(SiNcand) |
| Siq2jb[SiNcand] | Float_t | virtuality Q2 calculated with Jacquet-Blondel method based on zufos | Siq2jb(SiNcand) |
| Sixjb_cell[SiNcand] | Float_t | x Bjorken calculated with Jacquet-Blondel method based on cells | Sixjb_cell(SiNcand) |
| Siyjb_cell[SiNcand] | Float_t | inelasticity y calculated with Jacquet-Blondel method based on cells | Siyjb_cell(SiNcand) |
| Siq2jb_cell[SiNcand] | Float_t | virtuality Q2 calculated with Jacquet-Blondel method based on cells | Siq2jb_cell(SiNcand) |
| Block: SI_CELLS | |||
| root name | type | description | orange name |
| Sincell[SiNcand] | Int_t | number of cells | Sincell(SiNcand) |
| Sicellptr[SiNcand] | Int_t |
the k-th cell i-th for candidate =CellList[SiCellPtr[i-1]-1+(k-1)] |
Sicellptr(SiNcand) |
| Block: SI_DMCOR | |||
| root name | type | description | orange name |
| Six0[SiNcand] | Float_t | number of X0's from the dead mateiral map | Six0(SiNcand) |
| Sidmcorr[SiNcand] | Float_t | dead material correction from parametrization defined as E_CAL / E_true |
Sidmcorr(SiNcand) |
| Sidmcorrcode[SiNcand] | Int_t | 0 = dead material correction ok 1 = dead material correction too large 2 = dead material correction unusable |
Sidmcorrcode(SiNcand) |
| Block: BPRES | |||
| root name | type | description | orange name |
| Nbpchn | Int_t | number of BPRE channels with signals [0:432] | Nbpchn |
| Bpmip[nBPchn] | Float_t | channel energy in Mip | Bpmip(nBPchn) |
| Bpxyz[nBPchn][3] | Float_t | channel X,Y,Z position | Bpxyz(3,nBPchn) |
| Block: BPRES2 | |||
| root name | type | description | orange name |
| Bptim[nBPchn] | Float_t | channel timing | Bptim(nBPchn) |
| Block: TSUBAME | |||
| root name | type | description | orange name |
| Tsu_halo | logical | Does Tsubame think it's a BCAL halo muon? | Tsu_halo |
| Block: V0true | |||
| root name | type | description | orange name |
| Nv0true | Int_t | number v0 | Nv0true |
| V0true_prt[nv0true] | Int_t | Prt of V0 | V0true_prt(nv0true) |
| V0true_id[nv0true] | Int_t | FMCkin id of v0 | V0true_id(nv0true) |
| V0true_daughterprt[nv0true][2] | Int_t | prt of daughters | V0true_daughterprt(2,nv0true) |
| V0true_daughterid[nv0true][2] | Int_t | fmckin id daughters | V0true_daughterid(2,nv0true) |
| V0true_p[nv0true][4] | Float_t | 4-mom of V0 | V0true_p(4,nv0true) |
| V0true_daughter4p[nv0true][4][2] | Float_t | 4-mom daughters | V0true_daughter4p(2,4,nv0true) |
| V0true_daughterp[nv0true][2] | Float_t | momentum(P) of daughters | V0true_daughterp(2,nv0true) |
| V0true_daughterphi[nv0true][2] | Float_t | azimuthal angle of daughters | V0true_daughterphi(2,nv0true) |
| V0true_daughtertheta[nv0true][2] | Float_t | polar angle of daughters | V0true_daughtertheta(2,nv0true) |
| V0true_vtxpos[nv0true][3] | Float_t | position vtx | V0true_vtxpos(3,nv0true) |
| Block: Vertex | |||
| root name | type | description | orange name |
| Ntrkvtx | Int_t | Number of tracks fitting vertex COUTAB(VCTPAR) or COUTAB(ZTTRPRM) which vertex is stored is determined by the first argument on the ORANGE-TRACKING card (CTD or REG or ZTT) |
Ntrkvtx |
| Xvtx | Float_t | vertex x (VCTVTX_V(1) or ZTVTXPRM_V(1)); 0 if no vertex | Xvtx |
| Yvtx | Float_t | vertex y (VCTVTX_V(2) or ZTVTXPRM_V(2)); 0 if no vertex | Yvtx |
| Zvtx | Float_t | vertex z (VCTVTX_V(3) or ZTVTXPRM_V(3)); 0 if no vertex | Zvtx |
| Chivtx | Float_t | VCTVTX_CHI2/VCTVTX_NDF | Chivtx |
| Nsecvtx | Int_t | Nr. of secondary vertices in VCVTXSEC or ZTVTXSEC | Nsecvtx |
| Xsecvtx[Nsecvtx] | Float_t | VCVTXSEC_V(1) or ZTVTXSEC_V(1) | Xsecvtx(Nsecvtx) |
| Ysecvtx[Nsecvtx] | Float_t | VCVTXSEC_V(2) or ZTVTXSEC_V(2) | Ysecvtx(Nsecvtx) |
| Zsecvtx[Nsecvtx] | Float_t | VCVTXSEC_V(3) or ZTVTXSEC_V(3) | Zsecvtx(Nsecvtx) |
| Chisecvtx[Nsecvtx] | Float_t | VCTVTXSEC_CHI2/VCTVTXSEC_NDF or ZTVTXSec_CHI2/ZTVTXSec_NDF |
Chisecvtx(Nsecvtx) |
| Fetatr | Float_t | Eta of most forward non-electron track (VCTPAR) | Fetatr |
| Betatr | Float_t | Eta of most backward non-electron track (VCTPAR) | Betatr |
| Pt_tr | Float_t | Net pt from CTD (VCTPAR) | Pt_tr |
| Empz_tr_pi | Float_t | Net E-Pz from CTD (VCTPAR; assume pions) | Empz_tr_pi |
| Et_tr | Float_t | Net Et of CTD tracks (VCTPAR) | Et_tr |
| E_tr_pi | Float_t | Net E from CTD (VCTPAR; assume pions) | E_tr_pi |
| Phi_tr | Float_t | Azimuth of summed CTD track momenta (VCTPAR) | Phi_tr |
| Zvtx_fcal | Float_t | z vertex position from FCAL timing | Zvtx_fcal |
| Fcal_nrgoodcells | Int_t | number of FCAL cells used to determine vertex | Fcal_nrgoodcells |
| Fcal_vzerr | Float_t | error on the FCAL timing vertex | Fcal_vzerr |
| Block: ZUFOS | |||
| root name | type | description | orange name |
| V_h_px_zu | Float_t | hadronic x-momentum using ZUFOs | V_h_px_zu |
| V_h_py_zu | Float_t | hadronic y-momentum using ZUFOs | V_h_py_zu |
| V_h_pz_zu | Float_t | hadronic z-momentum using ZUFOs | V_h_pz_zu |
| V_h_e_zu | Float_t | hadronic energy using ZUFOs | V_h_e_zu |
| Etamax_zu | Float_t | Eta_max of all ZUFOs | Etamax_zu |
| Etamax_zu4 | Float_t | Eta_max of ZUFOs with E > 400 MeV | Etamax_zu4 |
| Fgap | Float_t | Forward largest gap edge (ZUFO) | Fgap |
| Bgap | Float_t | Backward largest gap edge (ZUFO) | Bgap |
| Nzufos | Int_t | Number of ZUFOs | Nzufos |
| Tufo[Nzufos][4] | Int_t |
Type/track/island information tufo[i][0] = 0: 1 track, 0 island. use CTD 1: 1 track, 1 island. use CTD 2: 2 tracks, 1 island. use CTD 3: 3 tracks, 1 island. use CTD 10: 1 track, 1 island, use CTD (z_cal_and_ctd) 12: 1 track, 2 islands. use CTD 22: 2 tracks, 2 islands. use CTD 30: > 0 tracks, 1 island. use CAL 31: 0 tracks, 1 island. use CAL 32: 0 tracks, 1 island, leftover CAL energy from type 10 37: 1 track, 2 islands, use CAL+CTD 41: 1 track, 1 island, use CAL E, CTD pos The modified zufos (muzmat.fpp): Isolated track zufo 1000 + XX: muon info used instead of track MIP like zufo: 1100 + XX: muon info used instead of calo Good muons in jet-like zufos: 100 + XX: jet zufo based on calo: a mip was subtracted to this zufo 2000: muon Other codes: 2002: mu pointing to zufo based on other tracks 2003: mu not pointing to enough energy to be a mip (bad !!) 300 + xx: object associated to the muon 2004: mu not pointing to any cal object (bad!!) Isolated track zufo (diszmat.fpp): 3000 + XX: electron found only by Sinistra (and not EM) Track matched zufo: 4000 + XX: electron found only by EM (and not Sinistra) 7000 + XX: electron found by Sinistra and EM tufo[i][1] = track number (see blocks ZUFOTRK and ZUFOTRK2) tufo[i][2] = island number (see block ZUFO_ISL) tufo[i][3] = 2nd island number (only for type 12) |
Tufo(4,Nzufos) |
| Zufo_bsp[Nzufos] | Int_t | 1= removed by backsplash cut, else 0 | Zufo_bsp(Nzufos) |
| Zufo[Nzufos][4] | Float_t | 4 momentum of ZUFO (px,py,pz,E) | Zufo(4,NZufos) |
| Cufo[Nzufos] | Float_t | dmco divisor. +: to be applied | Cufo(Nzufos) |
| Block: ZUFO_CAL | |||
| root name | type | description | orange name |
| Zufoecal[Nzufos] | Float_t | CAL energy | Zufoecal(Nzufos) |
| Zufoeemc[Nzufos] | Float_t | CAL EMC energy | Zufoeemc(Nzufos) |
| Block: ZUFO_Sho | |||
| root name | type | description | orange name |
| Zufo_fmax_bemc[Nzufos] | Float_t | Zufo fmax in BEMC (most energetic BEMC cell/total zufo energy) | Zufo_fmax_bemc(Nzufos) |
| Zufo_fmax_remc[Nzufos] | Float_t | Zufo fmax in REMC (most energetic REMC cell/total zufo energy) | Zufo_fmax_remc(Nzufos) |
| Zufo_fmax_femc[Nzufos] | Float_t | Zufo fmax in FEMC (most energetic FEMC cell/total zufo energy) | Zufo_fmax_femc(Nzufos) |
| Zufo_deltax[Nzufos] | Float_t | Zufo < dx > (energy weighted width in X in FCAL/RCAL) | Zufo_deltax(Nzufos) |
| Zufo_deltay[Nzufos] | Float_t | Zufo < dy > (energy weighted width in Y in FCAL/RCAL) | Zufo_deltay(Nzufos) |
| Zufo_deltaz[Nzufos] | Float_t | Zufo < dz > (energy weighted width in Z in BCAL) | Zufo_deltaz(Nzufos) |
| Block: ZUFO_ISL | |||
| root name | type | description | orange name |
| Nisl | Int_t | Number of Islands after clustering | Nisl |
| Nrcisl[nIsl] | Int_t | Number of cells in Island | Nrcisl(nIsl) |
| Isltyp[nIsl] | Int_t | Isltyp = 1000 for EMC cellIslands (2D) Isltyp = 2000 for HAC1 cellIslands (2D) Isltyp = 3000 for HAC2 cellIslands (2D) |
Isltyp(nIsl) |
| Eisl[nIsl] | Float_t | Energy of Island | Eisl(nIsl) |
| Xisl[nIsl] | Float_t | X Center-of-Gravity (COG) using log weighting | Xisl(nIsl) |
| Yisl[nIsl] | Float_t | Y Center-of-Gravity (COG) using log weighting | Yisl(nIsl) |
| Zisl[nIsl] | Float_t | Z Center-of-Gravity (COG) using log weighting | Zisl(nIsl) |
| Risl[nIsl] | Float_t | Maximum Radius of Island | Risl(nIsl) |
| Block: ZUFOTRK | |||
| root name | type | description | orange name |
| Nt | Int_t | Number of Tracks selected for ZUFOs | Nt |
| Vcthid[nT] | Int_t | VCTPAR_ID for prim. vert. tracks | Vcthid(nT) |
| Hlid[nT] | Int_t | VCTRHL ID for all used tracks | Hlid(nT) |
| Block: ZUFOTRK2 | |||
| root name | type | description | orange name |
| Qtr[nT] | Int_t | charge of the track | Qtr(nT) |
| Swmtr[nT] | Int_t | VCPARCAL_KODSWM/VCATCAL_KODSWM (prim/nonprim) | Swmtr(nT) |
| Qlttr[nT] | Int_t | quality of the track (0,1,2), see z_trks.fpp | Qlttr(nT) |
| Mtri[nT] | Int_t | number of Islands matched to the track | Mtri(nT) |
| Wtri[nT][10] | Int_t | addresses of matched Islands in ZUFO_ISL | Wtri(10,nT) |
| Ptr[nT] | Float_t | Track momentum | Ptr(nT) |
| Dptr[nT] | Float_t | Error on track momentum | Dptr(nT) |
| Thtr[nT] | Float_t | Theta of the track | Thtr(nT) |
| Phtr[nT] | Float_t | Phi of the track | Phtr(nT) |
| Dist_istr[nT] | Float_t | DCA to the closest island | Dist_istr(nT) |
| Block: Tracking | |||
| root name | type | description | orange name |
| Trk_ntracks | Int_t | total number of tracks in the tracking block [0,300] | Trk_ntracks |
| Trk_type[trk_ntracks] | Int_t | type of track : 1 = VCTRACK CTD only 2 = VCTRACK REGULAR 3 = ZTT |
Trk_type(trk_ntracks) |
| Ntrack_type[4] | Int_t | number of tracks of one type | Ntrack_type(4) |
| Def_trk_type | Int_t | default track type | Def_trk_type |
| Trk_id[trk_ntracks] | Int_t | ID of the track in VCTRHL (for VCT) or in ZTTRHL (for ZTT) |
Trk_id(trk_ntracks) |
| Trk_id2[trk_ntracks] | Int_t | ID of the track in ZTTRHL (for VCT) ; 0 if no or in VCTRHL (for ZTT) ; 0 if no |
Trk_id2(trk_ntracks) |
| Trk_px[trk_ntracks] | Float_t | Px at start (at vertex for vertex tracks) | Trk_px(trk_ntracks) |
| Trk_py[trk_ntracks] | Float_t | Py at start (at vertex for vertex tracks) | Trk_py(trk_ntracks) |
| Trk_pz[trk_ntracks] | Float_t | Pz at start (at vertex for vertex tracks) | Trk_pz(trk_ntracks) |
| Trk_charge[trk_ntracks] | Float_t | Charge | Trk_charge(trk_ntracks) |
| Block: Trk_vtx | |||
| root name | type | description | orange name |
| Trk_vtx[trk_ntracks] | Int_t | VCTVTX_ID for tracks on primary VCVTXSEC_ID for tracks on secondary (ZTVTXPRM_ID or ZTVTXSEC_ID for ZTT) else -1 |
Trk_vtx(trk_ntracks) |
| Trk_prim_vtx[trk_ntracks] | logical | 1 if fitted to primary, else 0 |
Trk_prim_vtx(trk_ntracks) |
| Trk_sec_vtx[trk_ntracks] | logical | 1 if fitted to secondary, else 0 |
Trk_sec_vtx(trk_ntracks) |
| Trk_vxid[trk_ntracks] | Int_t | for VC tracking: VCTPAR_ID for primary vertex tracks VCPARSEC_ID for secondary vertex tracks zero for non-vertex tracks for ZTT tracking: ZTTRPRM_ID for primary vertex tracks ZTTRSEC_ID for secondary vertex tracks zero for non-vertex tracks |
Trk_vxid(trk_ntracks) |
| Block: Trk_qual | |||
| root name | type | description | orange name |
| Trk_nzbyt[trk_ntracks] | Int_t | number of z-by-timing hits | Trk_nzbyt(trk_ntracks) |
| Trk_naxial[trk_ntracks] | Int_t | number of axial hits | Trk_naxial(trk_ntracks) |
| Trk_nstereo[trk_ntracks] | Int_t | number of stereo hits | Trk_nstereo(trk_ntracks) |
| Trk_ndof[trk_ntracks] | Int_t | number of degrees of freedom | Trk_ndof(trk_ntracks) |
| Trk_layinner[trk_ntracks] | Int_t | Inner superlayer | Trk_layinner(trk_ntracks) |
| Trk_layouter[trk_ntracks] | Int_t | Outer superlayer | Trk_layouter(trk_ntracks) |
| Trk_dedxctd[trk_ntracks] | Float_t | dE/dx from CTD (VCTRHL_dEdx) | Trk_dedxctd(trk_ntracks) |
| Trk_dedxctdcr[trk_ntracks] | Float_t | >0 : corrected dE/dx from CTD In case of MC: Randomly generated dE/dx distributed according to real DATA (instead using GEANT) Only valid for HERA I run periods at the moment 0 : aint(VCTRHL_dEdx) -1 : corrections failed -10 : uncorrected dE/dx is 0 -100 : no dE/dx calibration for this run |
Trk_dedxctdcr(trk_ntracks) |
| Trk_dedxctderr[trk_ntracks] | Int_t | error/warning code for CTD dE/dx value Positive values are errors; trk_dedxctdcr cannot be used for such tracks. Negative values are warnings. They are the sum of the following warning reasons: -1: pt < 180 MeV -2: mean psi prime bigger than 0.6 -4: number of used hits for dE/dx calculation < 10 -8: less than 30% of the passed wires are used for dE/dx calculation |
Trk_dedxctderr(trk_ntracks) |
| Trk_dedxctdnh[trk_ntracks] | Int_t | number of hits used for dE/dx (saturated FADC pulses subtracted) |
Trk_dedxctdnh(trk_ntracks) |
| Trk_dedxctdsaturated[trk_ntracks] | Int_t | number of saturated hits (not) used for dE/dx | Trk_dedxctdsaturated(trk_ntracks) |
| Trk_chi2[trk_ntracks] | Float_t | VCTRHL_Chi2 | Trk_chi2(trk_ntracks) |
| Trk_vchi2[trk_ntracks] | Float_t | VCTPar_Chi2 or VCParSec_Chi2 or -1 | Trk_vchi2(trk_ntracks) |
| Block: Trk_MVD | |||
| root name | type | description | orange name |
| Trk_nbr[trk_ntracks] | Int_t | number of barrel MVD r hits | Trk_nbr(trk_ntracks) |
| Trk_nbz[trk_ntracks] | Int_t | number of barrel MVD z hits | Trk_nbz(trk_ntracks) |
| Trk_nwu[trk_ntracks] | Int_t | number of u hits in MVD wheels | Trk_nwu(trk_ntracks) |
| Trk_nwv[trk_ntracks] | Int_t | number of v hits in MVD wheels | Trk_nwv(trk_ntracks) |
| Trk_nstt[trk_ntracks] | Int_t | number of STT hits | Trk_nstt(trk_ntracks) |
| Trk_dedxmvd[trk_ntracks] | Float_t | dE/dx from the MVD | Trk_dedxmvd(trk_ntracks) |
| Block: TrkHelix | |||
| root name | type | description | orange name |
| Trk_helpar[trk_ntracks][5] | Float_t | track's helix parameters (VCTRHL or ZTTRHL) | Trk_helpar(5,trk_ntracks) |
| Trk_covmat[trk_ntracks][15] | Float_t | track's covariance matrix (VCTRHL or ZTTRHL) | Trk_covmat(15,trk_ntracks) |
| Trk_helmom[trk_ntracks] | Float_t | track's momentum (VCTRHL or ZTTRHL) before any vertex fitting | Trk_helmom(trk_ntracks) |
| Block: Trk_imp | |||
| root name | type | description | orange name |
| Trk_imppar[trk_ntracks] | Float_t | track's 2D impact parameter calculated from VCTRHL (CTD, REG) or ZTTRHL (ZTT) helix with respect to the reference (z corrected beamspot from bspot block) |
Trk_imppar(trk_ntracks) |
| Trk_imperr[trk_ntracks] | Float_t | Error in impact parameter | Trk_imperr(trk_ntracks) |
| Trk_pca[trk_ntracks][3] | Float_t | (x,y,z) position of the point of closest approach | Trk_pca(3,trk_ntracks) |
| Block: Trk_vert | |||
| root name | type | description | orange name |
| Trk_nvert | Int_t | total number of vertices in the tracking block [0,120] | Trk_nvert |
| Vtx_type[trk_nvert] | Int_t | type of vertex : 1 = VCTRACK CTD only 2 = VCTRACK REGULAR 3 = ZTT |
Vtx_type(trk_nvert) |
| Vtx_prim[trk_nvert] | Int_t | 1 for primary vertex, else 0 | Vtx_prim(trk_nvert) |
| Vtx_id[trk_nvert] | Int_t | ID of the vertex in VCTVTX or VCVTXSEC for CTD and REG, ZTVTXPRM or ZTVTXSEC for ZTT |
Vtx_id(trk_nvert) |
| Vtx_x[trk_nvert] | Float_t | vertex X | Vtx_x(trk_nvert) |
| Vtx_y[trk_nvert] | Float_t | vertex Y | Vtx_y(trk_nvert) |
| Vtx_z[trk_nvert] | Float_t | vertex Z | Vtx_z(trk_nvert) |
| Vtx_chi2[trk_nvert] | Float_t | vertex Chi^2 | Vtx_chi2(trk_nvert) |
| Vtx_ndf[trk_nvert] | Int_t | vertex NDF | Vtx_ndf(trk_nvert) |
| Block: CTDSLT | |||
| root name | type | description | orange name |
| Sltctd | logical | .true. if CouTab(TCSGEV).gt.0 | Sltctd |
| Sltctd_tgstkf | Int_t | Number tracks sent to GSLT (TCSGEV) | Sltctd_tgstkf |
| Sltctd_tgstkm | Int_t | Number of unmatched segments (TCSGEV) | Sltctd_tgstkm |
| Sltctd_tgstkr | Int_t | Number of tracks found (TCSGEV) | Sltctd_tgstkr |
| Sltctd_tgsvxp[2] | Float_t | Event vertex position (z,r) (cm) (TCSGEV) | Sltctd_tgsvxp(2) |
| Sltctd_tgsvxe | Float_t | Event z-vertex error (cm) (TCSGEV) | Sltctd_tgsvxe |
| Sltctd_tgsvxm | Int_t | Number of tracks from vertex (TCSGEV) | Sltctd_tgsvxm |
| Sltctd_tgstkd | Int_t | Track definition flag (TCSGEV) | Sltctd_tgstkd |
| Sltctd_ntrk | Int_t | Number of tracks CouTab(TCSGTK) | Sltctd_ntrk |
| Sltctd_pt[sltctd_nTrk] | Float_t | transverse momentum (GeV/c) (TCSGTK) | Sltctd_pt(sltctd_nTrk) |
| Sltctd_ch[sltctd_nTrk] | Int_t | Charge (TCSGTK) | Sltctd_ch(sltctd_nTrk) |
| Sltctd_vx[sltctd_nTrk] | Float_t | vertex position (z in cm) (TCSGTK) | Sltctd_vx(sltctd_nTrk) |
| Sltctd_ns[sltctd_nTrk] | Float_t | Number of segments (TCSGTK) | Sltctd_ns(sltctd_nTrk) |
| Sltctd_ex[sltctd_nTrk] | Float_t | Exit point (x) (TCSGTK) | Sltctd_ex(sltctd_nTrk) |
| Sltctd_ey[sltctd_nTrk] | Float_t | Exit point (y) (TCSGTK) | Sltctd_ey(sltctd_nTrk) |
| Sltctd_ez[sltctd_nTrk] | Float_t | Exit point (z) (TCSGTK) | Sltctd_ez(sltctd_nTrk) |
| Sltctd_phi[sltctd_nTrk] | Float_t | Exit direction (phi) (TCSGTK) | Sltctd_phi(sltctd_nTrk) |
| Sltctd_the[sltctd_nTrk] | Float_t | Exit direction (cot(theta)) (TCSGTK) | Sltctd_the(sltctd_nTrk) |
| Block: VCATCAL | |||
| root name | type | description | orange name |
| Vcatcal_n | Int_t | Number of entries in VCATCAL table | Vcatcal_n |
| Vcatcal_q[vcatcal_n] | Int_t | Charge of track | Vcatcal_q(vcatcal_n) |
| Vcatcal_x[vcatcal_n][3] | Float_t | (x, y, z) position at end of swim | Vcatcal_x(3,vcatcal_n) |
| Vcatcal_p[vcatcal_n][3] | Float_t | Momentum (Px, Py, Pz) at end of swim | Vcatcal_p(3,vcatcal_n) |
| Block: CHARMVTX | |||
| root name | type | description | orange name |
| Nchvtx | Int_t | number of useful vertex | Nchvtx |
| Chvtxpar[nchvtx][3] | Float_t | x,y,z of vertex | Chvtxpar(3,nchvtx) |
| Chvtxcov[nchvtx][6] | Float_t | covariances | Chvtxcov(6,nchvtx) |
| Chchi2[nchvtx] | Float_t | chi2 | Chchi2(nchvtx) |
| Block: DSTAR1SH | |||
| root name | type | description | orange name |
| Nchds1 | Int_t | number of found D* candidates [0,50] | Nchds1 |
| Ds1ms[nchds1] | Float_t | delta_M, *(-1.) for wrong charge combinations | Ds1ms(nchds1) |
| Ds1pm[nchds1] | Float_t | P(D*) | Ds1pm(nchds1) |
| Ds1th[nchds1] | Float_t | Theta(D*) | Ds1th(nchds1) |
| Ds1ph[nchds1] | Float_t | Phi(D*) | Ds1ph(nchds1) |
| D1d0ms[nchds1] | Float_t | M(D0), *(-1.) for wrong charge combinations | D1d0ms(nchds1) |
| D1d0pm[nchds1] | Float_t | P(D0) | D1d0pm(nchds1) |
| D1d0th[nchds1] | Float_t | Theta(D0) | D1d0th(nchds1) |
| D1d0ph[nchds1] | Float_t | Phi(D0) | D1d0ph(nchds1) |
| D1kapm[nchds1] | Float_t | P(K) * (track's sign) | D1kapm(nchds1) |
| D1kath[nchds1] | Float_t | Theta(K) | D1kath(nchds1) |
| D1kaph[nchds1] | Float_t | Phi(K) | D1kaph(nchds1) |
| D1pipm[nchds1] | Float_t | P(pi) * (track's sign) | D1pipm(nchds1) |
| D1pith[nchds1] | Float_t | Theta(pi) | D1pith(nchds1) |
| D1piph[nchds1] | Float_t | Phi(pi) | D1piph(nchds1) |
| D1pspm[nchds1] | Float_t | P(pi-s) * (track's sign) | D1pspm(nchds1) |
| D1psth[nchds1] | Float_t | Theta(pi-s) | D1psth(nchds1) |
| D1psph[nchds1] | Float_t | Phi(pi-s) | D1psph(nchds1) |
| Block: DS1SH_RV | |||
| root name | type | description | orange name |
| Ds1trk[nchds1] | Int_t | track type: 1 : CTD, 2: REG, 3: ZTT | Ds1trk(nchds1) |
| Tds1ka[nchds1] | Int_t | adress of the K track in Tracking | Tds1ka(nchds1) |
| Tds1pi[nchds1] | Int_t | adress of the pi track in Tracking | Tds1pi(nchds1) |
| Tds1ps[nchds1] | Int_t | adress of the pi-s track in Tracking | Tds1ps(nchds1) |
| Id1d0vtx[nchds1] | Int_t | adress of 2ndry vertex in CHARMVTX | Id1d0vtx(nchds1) |
| Ids1rprm[nchds1] | Int_t | adress of reduced primary vertex in CHARMVTX | Ids1rprm(nchds1) |
| D1dca[nchds1] | Float_t | dca | D1dca(nchds1) |
| Block: DSTAR2 | |||
| root name | type | description | orange name |
| Nchds2 | Int_t | number of found D* candidates [0,5000] | Nchds2 |
| Ds2ms[nchds2] | Float_t | delta_M, *(-1.) for wrong charge combinations | Ds2ms(nchds2) |
| Ds2pm[nchds2] | Float_t | P(D*) | Ds2pm(nchds2) |
| Ds2th[nchds2] | Float_t | Theta(D*) | Ds2th(nchds2) |
| Ds2ph[nchds2] | Float_t | Phi(D*) | Ds2ph(nchds2) |
| D2d0ms[nchds2] | Float_t | M(D0), *(-1.) if D0 charge does not equal 0 | D2d0ms(nchds2) |
| D2d0pm[nchds2] | Float_t | P(D0) | D2d0pm(nchds2) |
| D2d0th[nchds2] | Float_t | Theta(D0) | D2d0th(nchds2) |
| D2d0ph[nchds2] | Float_t | Phi(D0) | D2d0ph(nchds2) |
| D2kapm[nchds2] | Float_t | P(K) * (track's sign) | D2kapm(nchds2) |
| D2kath[nchds2] | Float_t | Theta(K) | D2kath(nchds2) |
| D2kaph[nchds2] | Float_t | Phi(K) | D2kaph(nchds2) |
| D2p1pm[nchds2] | Float_t | P(pi-1) * (track's sign) | D2p1pm(nchds2) |
| D2p1th[nchds2] | Float_t | Theta(pi-1) | D2p1th(nchds2) |
| D2p1ph[nchds2] | Float_t | Phi(pi-1) | D2p1ph(nchds2) |
| D2p2pm[nchds2] | Float_t | P(pi-2) * (track's sign) | D2p2pm(nchds2) |
| D2p2th[nchds2] | Float_t | Theta(pi-2) | D2p2th(nchds2) |
| D2p2ph[nchds2] | Float_t | Phi(pi-2) | D2p2ph(nchds2) |
| D2p3pm[nchds2] | Float_t | P(pi-3) * (track's sign) | D2p3pm(nchds2) |
| D2p3th[nchds2] | Float_t | Theta(pi-3) | D2p3th(nchds2) |
| D2p3ph[nchds2] | Float_t | Phi(pi-3) | D2p3ph(nchds2) |
| D2pspm[nchds2] | Float_t | P(pi-s) * (track's sign) | D2pspm(nchds2) |
| D2psth[nchds2] | Float_t | Theta(pi-s) | D2psth(nchds2) |
| D2psph[nchds2] | Float_t | Phi(pi-s) | D2psph(nchds2) |
| Block: DS2_RV | |||
| root name | type | description | orange name |
| Ds2trk[nchds2] | Int_t | track type: 1 : CTD, 2: REG, 3: ZTT | Ds2trk(nchds2) |
| Tds2ka[nchds2] | Int_t | adress of the K track in Tracking | Tds2ka(nchds2) |
| Tds2p1[nchds2] | Int_t | adress of the pi-1 track in Tracking | Tds2p1(nchds2) |
| Tds2p2[nchds2] | Int_t | adress of the pi-2 track in Tracking | Tds2p2(nchds2) |
| Tds2p3[nchds2] | Int_t | adress of the pi-3 track in Tracking | Tds2p3(nchds2) |
| Tds2ps[nchds2] | Int_t | adress of the pi-s track in Tracking | Tds2ps(nchds2) |
| Id2d0vtx[nchds2] | Int_t | adress of 2nd vertex in Charmvtx e.g. chi2 of i-th vertex = Chchi2[i-1]-1 |
Id2d0vtx(nchds2) |
| Ids2rprm[nchds2] | Int_t | adress of 1st vertex in Charmvtx e.g. chi2 of i-th vertex = Chchi2[i-1]-1 |
Ids2rprm(nchds2) |
| Ds2rin[nchds2] | Int_t |
integer number, unique for each combination of Kpi-1pi-2pi-3 e.g. combinations (K=1,pi-1=2,pi-2=3,pi-3=4) (K=2,pi-1=1,pi-2=3,pi-3=4) (K=1,pi-1=2,pi-2=3,pi-3=4)pi-s=10 (K=1,pi-1=2,pi-2=3,pi-3=4)pi-s=15 have same ds2rin |
Ds2rin(nchds2) |
| D2maxdca[nchds2] | Float_t | maximal dca between tracks Kpi-1pi-2pi-3 | D2maxdca(nchds2) |
| Block: DZEROSH | |||
| root name | type | description | orange name |
| Nchd0 | Int_t | number of found D0 candidates [0,50] | Nchd0 |
| D0ms[nchd0] | Float_t | M(D0) | D0ms(nchd0) |
| D0pm[nchd0] | Float_t | P(D0) | D0pm(nchd0) |
| D0th[nchd0] | Float_t | Theta(D0) | D0th(nchd0) |
| D0ph[nchd0] | Float_t | Phi(D0) | D0ph(nchd0) |
| D0kapm[nchd0] | Float_t | P(K) * (track's sign) | D0kapm(nchd0) |
| D0kath[nchd0] | Float_t | Theta(K) | D0kath(nchd0) |
| D0kaph[nchd0] | Float_t | Phi(K) | D0kaph(nchd0) |
| D0pipm[nchd0] | Float_t | P(pi) * (track's sign) | D0pipm(nchd0) |
| D0pith[nchd0] | Float_t | Theta(pi) | D0pith(nchd0) |
| D0piph[nchd0] | Float_t | Phi(pi) | D0piph(nchd0) |
| Block: DCHGDSH | |||
| root name | type | description | orange name |
| Nchdch | Int_t | number of found D+/- candidates [0,200] | Nchdch |
| Dchms[nchdch] | Float_t | M(D+/-) | Dchms(nchdch) |
| Dchpm[nchdch] | Float_t | P(D+/-) | Dchpm(nchdch) |
| Dchth[nchdch] | Float_t | Theta(D+/-) | Dchth(nchdch) |
| Dchph[nchdch] | Float_t | Phi(D+/-) | Dchph(nchdch) |
| Dckapm[nchdch] | Float_t | P(K) * (track's sign) | Dckapm(nchdch) |
| Dckath[nchdch] | Float_t | Theta(K) | Dckath(nchdch) |
| Dckaph[nchdch] | Float_t | Phi(K) | Dckaph(nchdch) |
| Dcp1pm[nchdch] | Float_t | P(pi-1) * (track's sign) | Dcp1pm(nchdch) |
| Dcp1th[nchdch] | Float_t | Theta(pi-1) | Dcp1th(nchdch) |
| Dcp1ph[nchdch] | Float_t | Phi(pi-1) | Dcp1ph(nchdch) |
| Dcp2pm[nchdch] | Float_t | P(pi-2) * (track's sign) | Dcp2pm(nchdch) |
| Dcp2th[nchdch] | Float_t | Theta(pi-2) | Dcp2th(nchdch) |
| Dcp2ph[nchdch] | Float_t | Phi(pi-2) | Dcp2ph(nchdch) |
| Block: DCHSH_RV | |||
| root name | type | description | orange name |
| Dchtrk[nchdch] | Int_t | track type: 1 : CTD, 2: REG, 3: ZTT | Dchtrk(nchdch) |
| Tdchka[nchdch] | Int_t | adress of the K track in Tracking | Tdchka(nchdch) |
| Tdchp1[nchdch] | Int_t | adress of the pi-1 track in Tracking | Tdchp1(nchdch) |
| Tdchp2[nchdch] | Int_t | adress of the pi-2 track in Tracking | Tdchp2(nchdch) |
| Idchvtx[nchdch] | Int_t | adress of 2ndry vertex in CHARMVTX | Idchvtx(nchdch) |
| Idchrprm[nchdch] | Int_t | adress of reduced primary vertex in CHARMVTX | Idchrprm(nchdch) |
| Dcmaxdca[nchdch] | Float_t | Dcmaxdca(nchdch) | |
| Block: LAMBDASH | |||
| root name | type | description | orange name |
| Nchdla | Int_t | number of found Lambda_c+/- candidates [0,100] | Nchdla |
| Dlams[nchdla] | Float_t | M(Lambda_c) | Dlams(nchdla) |
| Dlapm[nchdla] | Float_t | P(Lambda_c) | Dlapm(nchdla) |
| Dlath[nchdla] | Float_t | Theta(Lambda_c) | Dlath(nchdla) |
| Dlaph[nchdla] | Float_t | Phi(Lambda_c) | Dlaph(nchdla) |
| Dlkapm[nchdla] | Float_t | P(K) * (track's sign) | Dlkapm(nchdla) |
| Dlkath[nchdla] | Float_t | Theta(K) | Dlkath(nchdla) |
| Dlkaph[nchdla] | Float_t | Phi(K) | Dlkaph(nchdla) |
| Dlprpm[nchdla] | Float_t | P(p) * (track's sign) | Dlprpm(nchdla) |
| Dlprth[nchdla] | Float_t | Theta(p) | Dlprth(nchdla) |
| Dlprph[nchdla] | Float_t | Phi(p) | Dlprph(nchdla) |
| Dlpipm[nchdla] | Float_t | P(pi) * (track's sign) | Dlpipm(nchdla) |
| Dlpith[nchdla] | Float_t | Theta(pi) | Dlpith(nchdla) |
| Dlpiph[nchdla] | Float_t | Phi(pi) | Dlpiph(nchdla) |
| Block: DLASH_RV | |||
| root name | type | description | orange name |
| Dlatrk[nchdla] | Int_t | track type: 1 : CTD, 2: REG, 3: ZTT | Dlatrk(nchdla) |
| Tdlaka[nchdla] | Int_t | adress of the K track in Tracking | Tdlaka(nchdla) |
| Tdlapr[nchdla] | Int_t | adress of the p track in Tracking | Tdlapr(nchdla) |
| Tdlapi[nchdla] | Int_t | adress of the pi track in Tracking | Tdlapi(nchdla) |
| Idlavtx[nchdla] | Int_t | adress of 2ndry vertex in CHARMVTX | Idlavtx(nchdla) |
| Idlarprm[nchdla] | Int_t | adress of reduced primary vertex in CHARMVTX | Idlarprm(nchdla) |
| Dlmaxdca[nchdla] | Float_t | Dlmaxdca(nchdla) | |
| Block: DSSSH | |||
| root name | type | description | orange name |
| Nchdss | Int_t | number of found D_s candidates [0,50] | Nchdss |
| Dssms[nchdss] | Float_t | M(D_s) | Dssms(nchdss) |
| Dsspm[nchdss] | Float_t | P(D_s) | Dsspm(nchdss) |
| Dssth[nchdss] | Float_t | Theta(D_s) | Dssth(nchdss) |
| Dssph[nchdss] | Float_t | Phi(D_s) | Dssph(nchdss) |
| Dsphms[nchdss] | Float_t | M(Phi) | Dsphms(nchdss) |
| Dsphpm[nchdss] | Float_t | P(Phi) | Dsphpm(nchdss) |
| Dsphth[nchdss] | Float_t | Theta(Phi) | Dsphth(nchdss) |
| Dsphph[nchdss] | Float_t | Phi(Phi) | Dsphph(nchdss) |
| Dsk1pm[nchdss] | Float_t | P(K+) * (track's sign) | Dsk1pm(nchdss) |
| Dsk1th[nchdss] | Float_t | Theta(K+) | Dsk1th(nchdss) |
| Dsk1ph[nchdss] | Float_t | Phi(K+) | Dsk1ph(nchdss) |
| Dsk2pm[nchdss] | Float_t | P(K-) * (track's sign) | Dsk2pm(nchdss) |
| Dsk2th[nchdss] | Float_t | Theta(K-) | Dsk2th(nchdss) |
| Dsk2ph[nchdss] | Float_t | Phi(K-) | Dsk2ph(nchdss) |
| Dspipm[nchdss] | Float_t | P(pi) * (track's sign) | Dspipm(nchdss) |
| Dspith[nchdss] | Float_t | Theta(pi) | Dspith(nchdss) |
| Dspiph[nchdss] | Float_t | Phi(pi) | Dspiph(nchdss) |
| Block: DSSSH_RV | |||
| root name | type | description | orange name |
| Dsstrk[nchdss] | Int_t | track type: 1 : CTD, 2: REG, 3: ZTT | Dsstrk(nchdss) |
| Tdssk1[nchdss] | Int_t | adress of the K+ track in Tracking | Tdssk1(nchdss) |
| Tdssk2[nchdss] | Int_t | adress of the K- track in Tracking | Tdssk2(nchdss) |
| Tdsspi[nchdss] | Int_t | adress of the pi track in Tracking | Tdsspi(nchdss) |
| Idssvtx[nchdss] | Int_t | adress of 2ndry vertex in CHARMVTX | Idssvtx(nchdss) |
| Idssrprm[nchdss] | Int_t | adress of reduced primary vertex in CHARMVTX | Idssrprm(nchdss) |
| Dssmaxdca[nchdss] | Float_t | Dssmaxdca(nchdss) | |
| Block: DOSH_RV | |||
| root name | type | description | orange name |
| D0trk[nchd0] | Int_t | track type: 1 : CTD, 2: REG, 3: ZTT | D0trk(nchd0) |
| Td0ka[nchd0] | Int_t | adress of the K track in Tracking | Td0ka(nchd0) |
| Td0pi[nchd0] | Int_t | adress of the pi track in Tracking | Td0pi(nchd0) |
| Id0vtx[nchd0] | Int_t | adress of 2ndry vertex in CHARMVTX | Id0vtx(nchd0) |
| Id0rprm[nchd0] | Int_t | adress of reduced primary vertex in CHARMVTX | Id0rprm(nchd0) |
| D0dca[nchd0] | Float_t | dca | D0dca(nchd0) |
| Block: cbtrue | |||
| root name | type | description | orange name |
| Ncb | Int_t | number of c/b particles | Ncb |
| Cb_id[ncb] | Int_t | fmckin_id of the c/b paticle | Cb_id(ncb) |
| Cb_mother[ncb] | Int_t | fmckin_id of c/b mother (0 if none or proton) | Cb_mother(ncb) |
| Cb_daughter[ncb] | Int_t | fmckin_id of c/b daughter (0 if none) | Cb_daughter(ncb) |
| Cb_daughter2[ncb] | Int_t | fmckin_id of 2nd c/b daughter (0 if none) | Cb_daughter2(ncb) |
| Cb_prt[ncb] | Int_t | prt of c/b particle | Cb_prt(ncb) |
| Nlight_daughters[ncb] | Int_t | number of light daughters of the c/b particle | Nlight_daughters(ncb) |
| Plight_daughters[ncb] | Int_t | pointer into light daughter list: light_dau_id(k+Plight_daughters(i)) = the FMCKin_ID of the k-th light daughter of the i-th c/b particle |
Plight_daughters(ncb) |
| Cb_p[ncb][5] | Float_t | Px,Py,Pz,E,Mass of the c/b particle | Cb_p(5,ncb) |
| Tot_daughters | Int_t | total number of light daughters from all c/b particles | Tot_daughters |
| Light_dau_id[tot_daughters] | Int_t | FMCKin_ID for light daughter | Light_dau_id(tot_daughters) |
| Light_dau_index[tot_daughters] | Int_t | index in Part_id in fmckintup.inc for light daughter | Light_dau_index(tot_daughters) |
| Block: THRUST | |||
| root name | type | description | orange name |
| Pseudo_thrust | Float_t | pseudo-thrust for photoproduction | Pseudo_thrust |
| Thrust_axis_phi | Float_t | phi of thrust axis | Thrust_axis_phi |
| Thrust_axis_theta1 | Float_t | theta of thrust axis 1 | Thrust_axis_theta1 |
| Thrust_axis_theta2 | Float_t | theta of thrust axis 2 | Thrust_axis_theta2 |
| Dis_pseudo_thrust_breit | Float_t | pseudo-thrust for DIS | Dis_pseudo_thrust_breit |
| Thrust_axis_phi_breit | Float_t | phi of thrust axis in Breit frame | Thrust_axis_phi_breit |
| Thrust_axis_theta1_breit | Float_t | theta of thrust axis 1 in Breit frame | Thrust_axis_theta1_breit |
| Thrust_axis_theta2_breit | Float_t | theta of thrust axis 2 in Breit frame | Thrust_axis_theta2_breit |
| Thrust_axis_phi1_lab | Float_t | phi of thrust axis 1 in Lab frame | Thrust_axis_phi1_lab |
| Thrust_axis_phi2_lab | Float_t | phi of thrust axis 2 in Lab frame | Thrust_axis_phi2_lab |
| Thrust_axis_theta1_lab | Float_t | theta of thrust axis 1 in Lab frame | Thrust_axis_theta1_lab |
| Thrust_axis_theta2_lab | Float_t | theta of thrust axis 2 in Lab frame | Thrust_axis_theta2_lab |
| Block: InsEvShA | |||
| root name | type | description | orange name |
| Q2prime_a | Float_t | Virtuality Q'^{2} (by using ZUFOs and KT-Jettype A.): Analogon to the photon-virtuality Q^{2}. After the emitted photon splits into a qqbar - pair, the into the subprocess incoming quark q' is virtual, which can be described by this variable. Interesting especially for instanton - events. | Q2prime_a |
| Isotropy_a | Float_t | Isotropy (by using ZUFOs and KT-Jettype A): By reconstructing a band in the eta-phi-plane one can boost the particles into the quark-gluon system. The isotropy describes, if the particles are evenly (isotropically) distributed in the band (value close to 0) or dijet-like (value close to 1). | Isotropy_a |
| Part_band_a | Float_t | The amount of particles in the band (zufos) by using ZUFOs and KT-Jettype A. | Part_band_a |
| Sphericity_a | Float_t | Sphericity (by using ZUFOs and KT-Jettype A): Describes the distribution of the particles for each event, if the particles are evenly (spherically) distributed, the sphericity is close to 1, for dijet-like behaviour, the value of the sphericity is close to 0. | Sphericity_a |
| Block: InsEvShB | |||
| root name | type | description | orange name |
| Q2prime_b | Float_t | Virtuality Q'^{2} (by using ZUFOs): Analogon to the photon-virtuality Q^{2}. After the emitted photon splits into a qqbar - pair, the into the subprocess incoming quark q' is virtual, which can be described by this variable. Interesting especially for instanton - events. | Q2prime_b |
| Isotropy_b | Float_t | Isotropy (by using ZUFOs): By reconstructing a band in the eta-phi-plane one can boost the particles into the quark-gluon system. The isotropy describes, if the particles are evenly (isotropically) distributed in the band (value close to 0) or dijet-like (value close to 1). | Isotropy_b |
| Part_band_b | Float_t | The amount of particles in the band (zufos) by using ZUFOs. | Part_band_b |
| Sphericity_b | Float_t | Sphericity (by using ZUFOs): Describes the distribution of the particles for each event, if the particles are evenly (spherically) distributed, the sphericity is close to 1, for dijet-like behaviour, the value of the sphericity is close to 0. | Sphericity_b |
| Block: FMCKIN1 | |||
| root name | type | description | orange name |
| Fmck_nkin | Int_t | number of entries in FMCKin (FMCKin) | Fmck_nkin |
| Fmck_q2 | Float_t | Q^2 derived from exchanged photon | Fmck_q2 |
| Fmck_w | Float_t | W derived from exchanged photon | Fmck_w |
| Fmck_xg | Float_t | x_gamma derived from exchanged photon | Fmck_xg |
| Block: FMCKIN2 | |||
| root name | type | description | orange name |
| Fmck_nstor | Int_t | number of entries stored in ntuple | Fmck_nstor |
| Fmck_id[fmck_nstor] | Int_t | ID (FMCKin) | Fmck_id(fmck_nstor) |
| Fmck_px[fmck_nstor] | Float_t | x momentum (FMCKin) | Fmck_px(fmck_nstor) |
| Fmck_py[fmck_nstor] | Float_t | y momentum (FMCKin) | Fmck_py(fmck_nstor) |
| Fmck_pz[fmck_nstor] | Float_t | z momentum (FMCKin) | Fmck_pz(fmck_nstor) |
| Fmck_e[fmck_nstor] | Float_t | energy (FMCKin) | Fmck_e(fmck_nstor) |
| Fmck_m[fmck_nstor] | Float_t | mass (FMCKin) | Fmck_m(fmck_nstor) |
| Fmck_isthep[fmck_nstor] | Int_t | ISTHEP (FMCKin) | Fmck_isthep(fmck_nstor) |
| Fmck_daug[fmck_nstor] | Int_t | DaughterOf (FMCKin) | Fmck_daug(fmck_nstor) |
| Fmck_daug2[fmck_nstor] | Int_t | DaughterOf2 (FMCKin) | Fmck_daug2(fmck_nstor) |
| Fmck_prt[fmck_nstor] | Int_t | FMCprt particle type (FMCKin) | Fmck_prt(fmck_nstor) |
| Fmck_prat[fmck_nstor] | Int_t | ProducedAt (FMCKin) | Fmck_prat(fmck_nstor) |
| Fmck_impar[fmck_nstor] | Float_t | impact parameter (FMCKin) | Fmck_impar(fmck_nstor) |
| Fmck_impar2[fmck_nstor] | Float_t | 2D impact parameter (FMCKin) | Fmck_impar2(fmck_nstor) |
| Fmck_hadjet[fmck_nstor] | Int_t | pointer to massless hadron MC jet (FMCKin) | Fmck_hadjet(fmck_nstor) |
| Fmck_mhadjet[fmck_nstor] | Int_t | pointer to massive hadron MC jet (FMCKin) | Fmck_mhadjet(fmck_nstor) |
| Fmck_bhadjet[fmck_nstor] | Int_t | pointer to massless hadron MC jet with stable B hadrons (FMCKin) | Fmck_bhadjet(fmck_nstor) |
| Fmck_mbhadjet[fmck_nstor] | Int_t | pointer to massive hadron MC jet with stable B hadrons (FMCKin) | Fmck_mbhadjet(fmck_nstor) |
| Fmck_partjet[fmck_nstor] | Int_t | pointer to massless parton MC jet (FMCKin) | Fmck_partjet(fmck_nstor) |
| Fmck_mpartjet[fmck_nstor] | Int_t | pointer to massive parton MC jet (FMCKin) | Fmck_mpartjet(fmck_nstor) |
| Fmck_brhadjet[fmck_nstor] | Int_t | pointer to massless hadron MC breitframe jet (FMCKin) | Fmck_brhadjet(fmck_nstor) |
| Fmck_brmhadjet[fmck_nstor] | Int_t | pointer to massive hadron MC breitframe jet (FMCKin) | Fmck_brmhadjet(fmck_nstor) |
| Fmck_brbhadjet[fmck_nstor] | Int_t | pointer to massless hadron MC breitframe jet with stable B hadrons (FMCKin) | Fmck_brbhadjet(fmck_nstor) |
| Fmck_brmbhadjet[fmck_nstor] | Int_t | pointer to massive hadron MC breitframe jet with stable B hadrons (FMCKin) | Fmck_brmbhadjet(fmck_nstor) |
| Fmck_brpartjet[fmck_nstor] | Int_t | pointer to massless parton MC breitframe jet (FMCKin) | Fmck_brpartjet(fmck_nstor) |
| Fmck_brmpartjet[fmck_nstor] | Int_t | pointer to massive parton MC breitframe jet (FMCKin) | Fmck_brmpartjet(fmck_nstor) |
| Fmcf_rm[fmck_nstor][3] | Float_t | x,y,z position of fate point (FMCFTE) | Fmcf_rm(3,fmck_nstor) |
| Block: FMCKIN3 | |||
| root name | type | description | orange name |
| Fmvtx_nstor | Int_t | number of vertices stored in ntuple | Fmvtx_nstor |
| Fmvtx_id[fmvtx_nstor] | Int_t | ID (FMCVtx) | Fmvtx_id(fmvtx_nstor) |
| Fmvtx_r[fmvtx_nstor][3] | Float_t | x,y,z position of vertex (FMCVtx) | Fmvtx_r(3,fmvtx_nstor) |
| Fmvtx_time[fmvtx_nstor] | Float_t | production time (FMCVtx) | Fmvtx_time(fmvtx_nstor) |
| Fmvtx_prby[fmvtx_nstor] | Int_t | produced by (FMCVtx) | Fmvtx_prby(fmvtx_nstor) |
| Block: MCHJETS | |||
| root name | type | description | orange name |
| Nhjets | Int_t | number of jets in MCHJETS block | Nhjets |
| Pxhjet[nhjets] | Float_t | x momentum of massless hadron jet | Pxhjet(nhjets) |
| Pyhjet[nhjets] | Float_t | y momentum of massless hadron jet | Pyhjet(nhjets) |
| Pzhjet[nhjets] | Float_t | z momentum of massless hadron jet | Pzhjet(nhjets) |
| Ehjet[nhjets] | Float_t | energy of massless hadron jet | Ehjet(nhjets) |
| Block: MCHMJETS | |||
| root name | type | description | orange name |
| Nhmjets | Int_t | number of jets in MCHMJETS block | Nhmjets |
| Pxhmjet[nhmjets] | Float_t | x momentum of massive hadron jet | Pxhmjet(nhmjets) |
| Pyhmjet[nhmjets] | Float_t | y momentum of massive hadron jet | Pyhmjet(nhmjets) |
| Pzhmjet[nhmjets] | Float_t | z momentum of massive hadron jet | Pzhmjet(nhmjets) |
| Ehmjet[nhmjets] | Float_t | energy of massive hadron jet | Ehmjet(nhmjets) |
| Block: MCHBJETS | |||
| root name | type | description | orange name |
| Nhbjets | Int_t | number of jets in MCHBJETS block | Nhbjets |
| Pxhbjet[nhbjets] | Float_t | x momentum of massless hadron jet with stable B hadrons | Pxhbjet(nhbjets) |
| Pyhbjet[nhbjets] | Float_t | y momentum of massless hadron jet with stable B hadrons | Pyhbjet(nhbjets) |
| Pzhbjet[nhbjets] | Float_t | z momentum of massless hadron jet with stable B hadrons | Pzhbjet(nhbjets) |
| Ehbjet[nhbjets] | Float_t | energy of massless hadron jet with stable B hadrons | Ehbjet(nhbjets) |
| Flhbjet[nhbjets] | Int_t | particle flag of massless hadron jet with stable B/C hadrons | Flhbjet(nhbjets) |
| Nphbjet[nhbjets] | Int_t | number of particles (stable hadrons) within hadron jet | Nphbjet(nhbjets) |
| Phbjet[nhbjets][512] | Int_t | FMCKin IDs of all stable hadrons within hadron jet | Phbjet(512,nhbjets) |
| Block: MCHBMJ | |||
| root name | type | description | orange name |
| Nhbmjets | Int_t | number of jets in MCHBMJ block | Nhbmjets |
| Pxhbmjet[nhbmjets] | Float_t | x momentum of massive hadron jet with stable B/C hadrons | Pxhbmjet(nhbmjets) |
| Pyhbmjet[nhbmjets] | Float_t | y momentum of massive hadron jet with stable B/C hadrons | Pyhbmjet(nhbmjets) |
| Pzhbmjet[nhbmjets] | Float_t | z momentum of massive hadron jet with stable B/C hadrons | Pzhbmjet(nhbmjets) |
| Ehbmjet[nhbmjets] | Float_t | energy of massive hadron jet with stable B/C hadrons | Ehbmjet(nhbmjets) |
| Flhbmjet[nhbmjets] | Int_t | particle flag of massive hadron jet with stable B/C hadrons | Flhbmjet(nhbmjets) |
| Nphbmjet[nhbmjets] | Int_t | number of particles (stable hadrons) within hadron jet | Nphbmjet(nhbmjets) |
| Phbmjet[nhbmjets][512] | Int_t | FMCKin IDs of all stable hadrons within hadron jet | Phbmjet(512,nhbmjets) |
| Block: MCPJETS | |||
| root name | type | description | orange name |
| Npjets | Int_t | number of jets in MCPJETS block | Npjets |
| Pxpjet[npjets] | Float_t | x momentum of massless parton jet | Pxpjet(npjets) |
| Pypjet[npjets] | Float_t | y momentum of massless parton jet | Pypjet(npjets) |
| Pzpjet[npjets] | Float_t | z momentum of massless parton jet | Pzpjet(npjets) |
| Epjet[npjets] | Float_t | energy of massless parton jet | Epjet(npjets) |
| Block: MCPMJETS | |||
| root name | type | description | orange name |
| Npmjets | Int_t | number of jets in MCPMJETS block | Npmjets |
| Pxpmjet[npmjets] | Float_t | x momentum of massive parton jet | Pxpmjet(npmjets) |
| Pypmjet[npmjets] | Float_t | y momentum of massive parton jet | Pypmjet(npmjets) |
| Pzpmjet[npmjets] | Float_t | z momentum of massive parton jet | Pzpmjet(npmjets) |
| Epmjet[npmjets] | Float_t | energy of massive parton jet | Epmjet(npmjets) |
| Block: MCBRHJ | |||
| root name | type | description | orange name |
| Nbrhjets | Int_t | number of jets in MCBRHJ block | Nbrhjets |
| Pxbrhjet[nbrhjets] | Float_t | x momentum of massless hadron jet | Pxbrhjet(nbrhjets) |
| Pybrhjet[nbrhjets] | Float_t | y momentum of massless hadron jet | Pybrhjet(nbrhjets) |
| Pzbrhjet[nbrhjets] | Float_t | z momentum of massless hadron jet | Pzbrhjet(nbrhjets) |
| Ebrhjet[nbrhjets] | Float_t | energy of massless hadron jet | Ebrhjet(nbrhjets) |
| Block: MCBRHMJ | |||
| root name | type | description | orange name |
| Nbrhmjets | Int_t | number of jets in MCBRHMJ block | Nbrhmjets |
| Pxbrhmjet[nbrhmjets] | Float_t | x momentum of massive hadron jet | Pxbrhmjet(nbrhmjets) |
| Pybrhmjet[nbrhmjets] | Float_t | y momentum of massive hadron jet | Pybrhmjet(nbrhmjets) |
| Pzbrhmjet[nbrhmjets] | Float_t | z momentum of massive hadron jet | Pzbrhmjet(nbrhmjets) |
| Ebrhmjet[nbrhmjets] | Float_t | energy of massive hadron jet | Ebrhmjet(nbrhmjets) |
| Block: MCBRHBJ | |||
| root name | type | description | orange name |
| Nbrhbjets | Int_t | number of jets in MCBRHBJ block | Nbrhbjets |
| Pxbrhbjet[nbrhbjets] | Float_t | x momentum of massless hadron jet with stable B hadrons | Pxbrhbjet(nbrhbjets) |
| Pybrhbjet[nbrhbjets] | Float_t | y momentum of massless hadron jet with stable B hadrons | Pybrhbjet(nbrhbjets) |
| Pzbrhbjet[nbrhbjets] | Float_t | z momentum of massless hadron jet with stable B hadrons | Pzbrhbjet(nbrhbjets) |
| Ebrhbjet[nbrhbjets] | Float_t | energy of massless hadron jet with stable B hadrons | Ebrhbjet(nbrhbjets) |
| Block: MCBRHBMJ | |||
| root name | type | description | orange name |
| Nbrhbmjets | Int_t | number of jets in MCBRHBMJ block | Nbrhbmjets |
| Pxbrhbmjet[nbrhbmjets] | Float_t | x momentum of massive hadron jet with stable B hadrons | Pxbrhbmjet(nbrhbmjets) |
| Pybrhbmjet[nbrhbmjets] | Float_t | y momentum of massive hadron jet with stable B hadrons | Pybrhbmjet(nbrhbmjets) |
| Pzbrhbmjet[nbrhbmjets] | Float_t | z momentum of massive hadron jet with stable B hadrons | Pzbrhbmjet(nbrhbmjets) |
| Ebrhbmjet[nbrhbmjets] | Float_t | energy of massive hadron jet with stable B hadrons | Ebrhbmjet(nbrhbmjets) |
| Block: MCBRPJ | |||
| root name | type | description | orange name |
| Nbrpjets | Int_t | number of jets in MCBRPJ block | Nbrpjets |
| Pxbrpjet[nbrpjets] | Float_t | x momentum of massless parton jet | Pxbrpjet(nbrpjets) |
| Pybrpjet[nbrpjets] | Float_t | y momentum of massless parton jet | Pybrpjet(nbrpjets) |
| Pzbrpjet[nbrpjets] | Float_t | z momentum of massless parton jet | Pzbrpjet(nbrpjets) |
| Ebrpjet[nbrpjets] | Float_t | energy of massless parton jet | Ebrpjet(nbrpjets) |
| Block: MCBRPMJ | |||
| root name | type | description | orange name |
| Nbrpmjets | Int_t | number of jets in MCBRPMJ block | Nbrpmjets |
| Pxbrpmjet[nbrpmjets] | Float_t | x momentum of massive parton jet | Pxbrpmjet(nbrpmjets) |
| Pybrpmjet[nbrpmjets] | Float_t | y momentum of massive parton jet | Pybrpmjet(nbrpmjets) |
| Pzbrpmjet[nbrpmjets] | Float_t | z momentum of massive parton jet | Pzbrpmjet(nbrpmjets) |
| Ebrpmjet[nbrpmjets] | Float_t | energy of massive parton jet | Ebrpmjet(nbrpmjets) |
| Block: QCDPAR | |||
| root name | type | description | orange name |
| Nppart | Int_t | number of partons | Nppart |
| Idpart[nppart] | Int_t | fmckin_fmcprt of parton (parton type) | Idpart(nppart) |
| Ppart[nppart][4] | Float_t | parton four-momentum | Ppart(4,nPpart) |
| Block: QCDBOSON | |||
| root name | type | description | orange name |
| Bospx | Float_t | exchanged photon px | Bospx |
| Bospy | Float_t | exchanged photon py | Bospy |
| Bospz | Float_t | exchanged photon pz | Bospz |
| Bosene | Float_t | exchanged photon energy | Bosene |
| Block: QCDHAD | |||
| root name | type | description | orange name |
| Nfmckin | Int_t | Number of hadrnos in FMCkin | Nfmckin |
| Idfmckin[NFMCkin] | Int_t | fmckin_fmcprt of hadron (hadron type) | Idfmckin(NFMCkin) |
| Ppfmckin[NFMCkin][4] | Float_t | hadron four-momentum copied from FMCkin | Ppfmckin(4,NFMCkin) |
| Block: fl_tlt | |||
| root name | type | description | orange name |
| Tlt_spp15 | Int_t | spp15 TLT: 1 - passed, 0 - not passed | Tlt_spp15 |
| Tlt_spp16 | Int_t | spp16 TLT: 1 - passed, 0 - not passed | Tlt_spp16 |
| Tlt_spp11 | Int_t | spp11 TLT: 1 - passed, 0 - not passed | Tlt_spp11 |
| Tlt_spp15lq2 | Int_t | spp15 TLT for low Q2 configuration: 1 - passed, 0 - not passed, -1 - not defined !!! Use this only for HER data taken at the end of running with LER triggers !!! |
Tlt_spp15lq2 |
| Tlt_spp16lq2 | Int_t | spp16 TLT for low Q2 configuration: 1 - passed, 0 - not passed, -1 - not defined !!! Use this only for HER data taken at the end of running with LER triggers !!! |
Tlt_spp16lq2 |
| Block: FNC | |||
| root name | type | description | orange name |
| Fncflag | Int_t | 1=FNC is active and it can be used | Fncflag |
| Efnc | Float_t | Total energy in FNC (Gev) | Efnc |
| Vetofnc | Float_t | Veto plane pulse height (approx. # mips) | Vetofnc |
| Maxtwrfnc | Int_t | FNC tower with maximum energy (1-14) | Maxtwrfnc |
| Ywidthfnc | Float_t | FNC neutral shower vertical width (cm) | Ywidthfnc |
| Block: FPCA | |||
| root name | type | description | orange name |
| Fpc_p4tot[4] | Float_t | 4-momenta (Px,Py,Pz,E) total in FPC | Fpc_p4tot(4) |
| Block: FPCB | |||
| root name | type | description | orange name |
| Fpc_n | Int_t | No. of FPC cells | Fpc_n |
| Fpc_id[FPC_n] | Int_t | ID of FPC cells | Fpc_id(FPC_n) |
| Fpc_e[FPC_n] | Float_t | Energy in FPC cells | Fpc_e(FPC_n) |
| Fpc_t[FPC_n] | Float_t | Timing of FPC cells | Fpc_t(FPC_n) |
| Fpcpre_n | Int_t | No. of presampler cells | Fpcpre_n |
| Fpcpre_id[4] | Int_t | ID of presampler cells | Fpcpre_id(4) |
| Fpcpre_e[4] | Float_t | Energy of presampler cells | Fpcpre_e(4) |
| Fpcpre_t[4] | Float_t | Timing of presampler cells | Fpcpre_t(4) |
| Fpc_p4[FPC_n][4] | Float_t | 4-momenta (Px,Py,Pz,E) FPC cells | Fpc_p4(FPC_n)(4) |
| Block: LPS | |||
| root name | type | description | orange name |
| Lpssta | Int_t | Stations used in the reconstruction: | Lpssta |
| Lpsxl | Float_t | x_L of proton | Lpsxl |
| Lpspx | Float_t | p_x of proton | Lpspx |
| Lpspy | Float_t | p_y of proton | Lpspy |
| Lpsdist | Float_t | Distance of track from beam pipe (cm) | Lpsdist |
| Lpschindf | Float_t | chisquared/no.degs.of.freedom | Lpschindf |
| Lpstag | Float_t | Validity flag (genuine LPS event) | Lpstag |
| Lpsxlerr | Float_t | error x_L from track fit | Lpsxlerr |
| Lpspxerr | Float_t | error p_x from track fit | Lpspxerr |
| Lpspyerr | Float_t | error p_y from track fit | Lpspyerr |
| Block: TAGGER | |||
| root name | type | description | orange name |
| Z44m_ene | Float_t | Reconstructed energy in the 44 metre tagger | Z44m_ene |
| Z44m_x | Float_t | Imbalance between the outmost and two inner strips | Z44m_x |
| Z44m_y | Float_t | Z44m_y | |
| Z8m_ene | Float_t | Energy in the 8 metre tagger | Z8m_ene |
| Z8m_x | Float_t | X position in the 8 metre tagger | Z8m_x |
| Z8m_y | Float_t | Z8m_y | |
| Prtflag | Int_t | 0=OK, 1=no PRT info because PTTENE not filled, 2=no PRT info because of hardware/readout problem |
Prtflag |
| Prt1_ene | Float_t | Energy in PRT 1 | Prt1_ene |
| Prt2_ene | Float_t | Energy in PRT 2 | Prt2_ene |
| Block: V0 | |||
| root name | type | description | orange name |
| Nv0 | Int_t | number of V0 candidates [0,20] with |M(pi,pi)-M(K0)|<0.15 or |M(p,pi)-M(Lambda)|<0.10 positive/negative track is 1st/2nd |
Nv0 |
| Secvtx_x[nV0] | Float_t | x Secondary Vertex | Secvtx_x(nV0) |
| Secvtx_y[nV0] | Float_t | y Secondary Vertex | Secvtx_y(nV0) |
| Secvtx_z[nV0] | Float_t | z Secondary Vertex | Secvtx_z(nV0) |
| Secvtx_chi2[nV0] | Float_t | Chi^2 Secondary Vertex | Secvtx_chi2(nV0) |
| Secvtx_ndf[nV0] | Int_t | SecVtx Number of degrees of freedom; require SECVTX_Ndf=1 if You want only 2-track secondaries |
Secvtx_ndf(nV0) |
| Q1[nV0] | Float_t | Charge T1 | Q1(nV0) |
| Q2[nV0] | Float_t | Charge T2 | Q2(nV0) |
| V0_vtx[nV0] | Int_t | VCPARSEC_ProducedAt for the 2 tracks | V0_vtx(nV0) |
| T1_nzbyt[nV0] | Int_t | Z-by-timing T1 | T1_nzbyt(nV0) |
| T2_nzbyt[nV0] | Int_t | Z-by-timing T2 | T2_nzbyt(nV0) |
| T1_naxial[nV0] | Int_t | Number of axial hits T1 | T1_naxial(nV0) |
| T2_naxial[nV0] | Int_t | Number of axial hits T2 | T2_naxial(nV0) |
| T1_nstereo[nV0] | Int_t | Number of stereo hits T1 | T1_nstereo(nV0) |
| T2_nstereo[nV0] | Int_t | Number of stereo hits T2 | T2_nstereo(nV0) |
| T1_ndof[nV0] | Int_t | Number of degrees of freedom T1 | T1_ndof(nV0) |
| T2_ndof[nV0] | Int_t | Number of degrees of freedom T2 | T2_ndof(nV0) |
| T1_layinn[nV0] | Int_t | CTD inner superlayer T1 | T1_layinn(nV0) |
| T2_layinn[nV0] | Int_t | CTD inner superlayer T2 | T2_layinn(nV0) |
| T1_layout[nV0] | Int_t | CTD outer superlayer T1 | T1_layout(nV0) |
| T2_layout[nV0] | Int_t | CTD outer superlayer T2 | T2_layout(nV0) |
| T1_vctrhl[nV0] | Int_t | ID of the track T1 in VCTRHL for REG; or in ZTTRHL for ZTT |
T1_vctrhl(nV0) |
| T2_vctrhl[nV0] | Int_t | ID of the track T2 in VCTRHL for REG; or in ZTTRHL for ZTT |
T2_vctrhl(nV0) |
| T1_dedx[nV0] | Float_t | Energy loss dE/dx T1 | T1_dedx(nV0) |
| T2_dedx[nV0] | Float_t | Energy loss dE/dx T2 | T2_dedx(nV0) |
| T1_chi2[nV0] | Float_t | Chi^2 of track fit T1 | T1_chi2(nV0) |
| T2_chi2[nV0] | Float_t | Chi^2 of track fit T2 | T2_chi2(nV0) |
| P1_x[nV0] | Float_t | Momentum(x) T1 | P1_x(nV0) |
| P1_y[nV0] | Float_t | Momentum(y) T1 | P1_y(nV0) |
| P1_z[nV0] | Float_t | Momentum(z) T1 | P1_z(nV0) |
| P2_x[nV0] | Float_t | Momentum(x) T2 | P2_x(nV0) |
| P2_y[nV0] | Float_t | Momentum(y) T2 | P2_y(nV0) |
| P2_z[nV0] | Float_t | Momentum(z) T2 | P2_z(nV0) |
| T1_theta[nV0] | Float_t | Theta T1 | T1_theta(nV0) |
| T2_theta[nV0] | Float_t | Theta T2 | T2_theta(nV0) |
| Invmass_lambda[nV0] | Float_t | Invariant Mass: Lambda (p+,pi-) | Invmass_lambda(nV0) |
| Invmass_alambda[nV0] | Float_t | Invariant Mass: AntiLambda (pi+,p-) | Invmass_alambda(nV0) |
| Invmass_k0[nV0] | Float_t | Invariant Mass: K0 | Invmass_k0(nV0) |
| Invmass_ee[nV0] | Float_t | Invariant Mass: ee | Invmass_ee(nV0) |