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Commit 08be358f authored by hallc-online's avatar hallc-online
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Overdue commit of template file work.

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DEF-files/SHMS/STACK/pstackana_cuts.def
+ 42
− 0
View file @ 08be358f
...@@ -230,5 +230,47 @@ goodps2y P.hod.2y.nhits > 0 && P.hod.2y.nhits < 3 ...@@ -230,5 +230,47 @@ goodps2y P.hod.2y.nhits > 0 && P.hod.2y.nhits < 3
goodps2 goodps2x && goodps2y goodps2 goodps2x && goodps2y
goodps1s2 goodps1 && goodps2 goodps1s2 goodps1 && goodps2
SHMS_hgcer_track_matched_region_1 P.hgcer.numTracksMatched[0]>0
SHMS_hgcer_track_fired_region_1 P.hgcer.numTracksFired[0]>0
SHMS_hgcer_track_matched_region_2 P.hgcer.numTracksMatched[1]>0
SHMS_hgcer_track_fired_region_2 P.hgcer.numTracksFired[1]>0
SHMS_hgcer_track_matched_region_3 P.hgcer.numTracksMatched[2]>0
SHMS_hgcer_track_fired_region_3 P.hgcer.numTracksFired[2]>0
SHMS_hgcer_track_matched_region_4 P.hgcer.numTracksMatched[3]>0
SHMS_hgcer_track_fired_region_4 P.hgcer.numTracksFired[3]>0
SHMS_hgcer_track_matched_tot P.hgcer.totNumTracksMatched>0
SHMS_hgcer_track_fired_tot P.hgcer.totNumTracksFired>0
SHMS_ngcer_track_matched_region_1 P.ngcer.numTracksMatched[0]>0
SHMS_ngcer_track_fired_region_1 P.ngcer.numTracksFired[0]>0
SHMS_ngcer_track_matched_region_2 P.ngcer.numTracksMatched[1]>0
SHMS_ngcer_track_fired_region_2 P.ngcer.numTracksFired[1]>0
SHMS_ngcer_track_matched_region_3 P.ngcer.numTracksMatched[2]>0
SHMS_ngcer_track_fired_region_3 P.ngcer.numTracksFired[2]>0
SHMS_ngcer_track_matched_region_4 P.ngcer.numTracksMatched[3]>0
SHMS_ngcer_track_fired_region_4 P.ngcer.numTracksFired[3]>0
SHMS_ngcer_track_matched_tot P.ngcer.totNumTracksMatched>0
SHMS_ngcer_track_fired_tot P.ngcer.totNumTracksFired>0
SHMS_aero_track_matched_region_1 P.aero.numTracksMatched[0]>0
SHMS_aero_track_fired_region_1 P.aero.numTracksFired[0]>0
SHMS_aero_track_matched_region_2 P.aero.numTracksMatched[1]>0
SHMS_aero_track_fired_region_2 P.aero.numTracksFired[1]>0
SHMS_aero_track_matched_region_3 P.aero.numTracksMatched[2]>0
SHMS_aero_track_fired_region_3 P.aero.numTracksFired[2]>0
SHMS_aero_track_matched_region_4 P.aero.numTracksMatched[3]>0
SHMS_aero_track_fired_region_4 P.aero.numTracksFired[3]>0
SHMS_aero_track_matched_region_5 P.aero.numTracksMatched[4]>0
SHMS_aero_track_fired_region_5 P.aero.numTracksFired[4]>0
SHMS_aero_track_matched_region_6 P.aero.numTracksMatched[5]>0
SHMS_aero_track_fired_region_6 P.aero.numTracksFired[5]>0
SHMS_aero_track_matched_region_7 P.aero.numTracksMatched[6]>0
SHMS_aero_track_fired_region_7 P.aero.numTracksFired[6]>0
SHMS_aero_track_matched_tot P.aero.totNumTracksMatched>0
SHMS_aero_track_fired_tot P.aero.totNumTracksFired>0
Block: Physics Block: Physics
Physics_master SHMS_event Physics_master SHMS_event
TEMPLATES/SHMS/PRODUCTION/pstackana_production.template
+ 250
− 9
View file @ 08be358f
Run #: {gen_run_number} Run #: {gen_run_number}
Run Time : {P.1Mhz.scaler} {P.1Mhz.scaler/1000000.} sec
BCM1 : {(P.BCM1.scalerRate-250000)/(4673):%3.3f} uA Total charge = {(P.BCM1.scalerRate-250000) / (4673)*P.1Mhz.scaler/1000000.:%7.3f} uC
BCM2 : {(P.BCM2.scalerRate-250000)/(3954):%3.3f} uA Total charge = {(P.BCM2.scalerRate-250000) / (3954)*P.1Mhz.scaler/1000000.:%7.3f} uC
Unser : {(P.Unser.scalerRate-393000)/(4000):%3.3f} uA Total charge = {(P.Unser.scalerRate-393000) / (4000)*P.1Mhz.scaler/1000000.:%7.3f} uC
All triggers : {all_trigs.npassed} All triggers : {all_trigs.npassed}
Trig : {P.Trig.scaler:%8d} [{P.Trig.scalerRate:%7.1f}]
Rate : {P.Trig.scalerRate/1000.:%7.3f} kHz Rate : {P.Trig.scalerRate/1000.:%7.3f} kHz
Live Time : {(all_trigs.npassed / P.Trig.scaler)*100.0:%3.2f} % Live Time : {(all_trigs.npassed / P.Trig.scaler)*100.0:%3.2f} %
Dead Time : {100.0 - (all_trigs.npassed / P.Trig.scaler)*100.0:%3.2f} % Dead Time : {100.0 - (all_trigs.npassed / P.Trig.scaler)*100.0:%3.2f} %
**DRIFT CHAMBER**
good_S1_time Counts: {good_S1_time.npassed} / all_trigs : {good_S1_time.npassed / all_trigs.npassed} good_S1_time Counts: {good_S1_time.npassed} / all_trigs : {good_S1_time.npassed / all_trigs.npassed}
good_S2X_time Counts: {good_S2X_time.npassed} / all_trigs : {good_S2X_time.npassed / all_trigs.npassed} good_S2X_time Counts: {good_S2X_time.npassed} / all_trigs : {good_S2X_time.npassed / all_trigs.npassed}
good_S1_S2X_time Counts: {good_S1_S2X_time.npassed} / all_trigs : {good_S1_S2X_time.npassed / all_trigs.npassed} good_S1_S2X_time Counts: {good_S1_S2X_time.npassed} / all_trigs : {good_S1_S2X_time.npassed / all_trigs.npassed}
...@@ -58,7 +53,252 @@ shmsDC2u2Planes5 Counts: {shmsDC2_5hits_u2.npassed} eff : {shmsDC2_6hits_u2. ...@@ -58,7 +53,252 @@ shmsDC2u2Planes5 Counts: {shmsDC2_5hits_u2.npassed} eff : {shmsDC2_6hits_u2.
shmsDC2v1Planes5 Counts: {shmsDC2_5hits_v1.npassed} eff : {shmsDC2_6hits_v1.npassed / shmsDC2_5hits_v1.npassed} shmsDC2v1Planes5 Counts: {shmsDC2_5hits_v1.npassed} eff : {shmsDC2_6hits_v1.npassed / shmsDC2_5hits_v1.npassed}
shmsDC2v2Planes5 Counts: {shmsDC2_5hits_v2.npassed} eff : {shmsDC2_6hits_v2.npassed / shmsDC2_5hits_v2.npassed} shmsDC2v2Planes5 Counts: {shmsDC2_5hits_v2.npassed} eff : {shmsDC2_6hits_v2.npassed / shmsDC2_5hits_v2.npassed}
shmsDC2x2Planes5 Counts: {shmsDC2_5hits_x2.npassed} eff : {shmsDC2_6hits_x2.npassed / shmsDC2_5hits_x2.npassed} shmsDC2x2Planes5 Counts: {shmsDC2_5hits_x2.npassed} eff : {shmsDC2_6hits_x2.npassed / shmsDC2_5hits_x2.npassed}
I'm pretty sure that these are the "raw" number of counts. "Raw" means one or more hits per dc plane.
shmsDC1_1hit_x1: {shmsDC1_1hit_x1.npassed} ;eff:
shmsDC1_1hit_u1: {shmsDC1_1hit_u1.npassed} ;eff:
shmsDC1_1hit_u2: {shmsDC1_1hit_u2.npassed} ;eff:
shmsDC1_1hit_v1: {shmsDC1_1hit_v1.npassed} ;eff:
shmsDC1_1hit_v2: {shmsDC1_1hit_v2.npassed} ;eff:
shmsDC1_1hit_x2: {shmsDC1_1hit_x2.npassed} ;eff:
shmsDC2_1hit_x1: {shmsDC2_1hit_x1.npassed} ;eff:
shmsDC2_1hit_u1: {shmsDC2_1hit_u1.npassed} ;eff:
shmsDC2_1hit_u2: {shmsDC2_1hit_u2.npassed} ;eff:
shmsDC2_1hit_v1: {shmsDC2_1hit_v1.npassed} ;eff:
shmsDC2_1hit_v2: {shmsDC2_1hit_v2.npassed} ;eff:
shmsDC2_1hit_x2: {shmsDC2_1hit_x2.npassed} ;eff:
"Good" means one or two hits per dc plane.
goodHDC1x1: {goodHDC1x1.npassed} eff : {goodHDC1x1.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC1u2: {goodHDC1u2.npassed} eff : {goodHDC1u2.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC1u1: {goodHDC1u1.npassed} eff : {goodHDC1u1.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC1v1: {goodHDC1v1.npassed} eff : {goodHDC1v1.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC1v2: {goodHDC1v2.npassed} eff : {goodHDC1v2.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC1x2: {goodHDC1x2.npassed} eff : {goodHDC1x2.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC2x1: {goodHDC2x1.npassed} eff : {goodHDC2x1.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC2u2: {goodHDC2u2.npassed} eff : {goodHDC2u2.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC2u1: {goodHDC2u1.npassed} eff : {goodHDC2u1.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC2v1: {goodHDC2v1.npassed} eff : {goodHDC2v1.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC2v2: {goodHDC2v2.npassed} eff : {goodHDC2v2.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC2x2: {goodHDC2x2.npassed} eff : {goodHDC2x2.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC1: {goodHDC1.npassed} eff : {goodHDC1.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC2: {goodHDC2.npassed} eff : {goodHDC2.npassed/(P.Trig.scaler+.0001):%5.3f}
bothgood: {bothGood.npassed} eff : {bothGood.npassed/(P.Trig.scaler+.0001):%5.3f}
realhdc1x1: {realhdc1x1.npassed}
realhdc1u2: {realhdc1u2.npassed}
realhdc1u1: {realhdc1u1.npassed}
realhdc1v1: {realhdc1v1.npassed}
realhdc1v2: {realhdc1v2.npassed}
realhdc1x2: {realhdc1x2.npassed}
realhdc2x1: {realhdc2x1.npassed}
realhdc2u2: {realhdc2u2.npassed}
realhdc2u1: {realhdc2u1.npassed}
realhdc2v1: {realhdc2v1.npassed}
realhdc2v2: {realhdc2v2.npassed}
realhdc2x2: {realhdc2x2.npassed}
**HODOSCOPE**
"Any" means one or more hits per scint plane.
anyhs1x : {anyhs1x.npassed} eff: {anyhs1x.npassed/(P.Trig.scaler+.0001):%5.3f} BAD = ??
anyhs1y : {anyhs1y.npassed} eff: {anyhs1y.npassed/(P.Trig.scaler+.0001):%5.3f}
anyhs2x : {anyhs2x.npassed} eff: {anyhs2x.npassed/(P.Trig.scaler+.0001):%5.3f}
anyhs2y : {anyhs2y.npassed} eff: {anyhs2y.npassed/(P.Trig.scaler+.0001):%5.3f}
"Good" means one or two hits per scint plane.
goodps1x : {goodps1x.npassed} eff: {goodps1x.npassed/(P.Trig.scaler+.0001):%5.3f} BAD = ??
goodps1y : {goodps1y.npassed} eff: {goodps1y.npassed/(P.Trig.scaler+.0001):%5.3f}
goodps1 : {goodps1.npassed} eff: {goodps1.npassed/(P.Trig.scaler+.0001):%5.3f}
goodps2x : {goodps2x.npassed} eff: {goodps2x.npassed/(P.Trig.scaler+.0001):%5.3f}
goodps2y : {goodps2y.npassed} eff: {goodps2y.npassed/(P.Trig.scaler+.0001):%5.3f}
goodps2 : {goodps2.npassed} eff: {goodps2.npassed/(P.Trig.scaler+.0001):%5.3f}
goodps1s2: {goodps1s2.npassed} eff: {goodps1s2.npassed/(P.Trig.scaler+.0001):%5.3f}
**CHERENKOVS AND CAL**
cer_ng_elec : {cer_ng_elec.npassed}
cer_ng_pi : {cer_ng_pi.npassed}
cer_hg_elec : {cer_hg_elec.npassed}
cer_hg_pi : {cer_hg_pi.npassed}
cer_pi_both : {cer_pi_both.npassed}
cer_elec_both : {cer_elec_both.npassed}
cal_elec : {cal_elec.npassed}
cal_pi : {cal_pi.npassed}
elec_all : {elec_all.npassed}
pi_all : {pi_all.npassed}
pCleanTrack_cer_elec : {pCleanTrack_cer_elec.npassed}
p1hit1_cer_elec : {p1hit1_cer_elec.npassed}
pCleanTrack_cal_elec : {pCleanTrack_cal_elec.npassed}
p1hit1_cal_elec : {p1hit1_cal_elec.npassed}
*NGC EFF*
Mirror 1 Efficiency
Mirror 2 Efficiency
Mirror 3 Efficiency
Mirror 4 Efficiency
Overall Efficiency
*HGC EFF*
Mirror 1 Efficiency
Mirror 2 Efficiency
Mirror 3 Efficiency
Mirror 4 Efficiency
Overall Efficiency
*CAL EFF*
Block eff Hits
*HODO EFF*
Scint Pos eff Neg eff OR eff AND eff Hits
-----------------------------------------------------------------------------------------------------------
P1X1+
P1X2+
P1X3+
P1X4+
P1X5+
P1X6+
P1X7+
P1X8+
P1X9+
P1X10+
P1X11+
P1X12+
P1X13+
P1X1-
P1X2-
P1X3-
P1X4-
P1X5-
P1X6-
P1X7-
P1X8-
P1X9-
P1X10-
P1X11-
P1X12-
P1X13-
P1Y1+
P1Y2+
P1Y3+
P1Y4+
P1Y5+
P1Y6+
P1Y7+
P1Y8+
P1Y9+
P1Y10+
P1Y11+
P1Y12+
P1Y13+
P1Y1-
P1Y2-
P1Y3-
P1Y4-
P1Y5-
P1Y6-
P1Y7-
P1Y8-
P1Y9-
P1Y10-
P1Y11-
P1Y12-
P1Y13-
P2X1+
P2X2+
P2X3+
P2X4+
P2X5+
P2X6+
P2X7+
P2X8+
P2X9+
P2X10+
P2X11+
P2X12+
P2X13+
P2X14+
P2X1-
P2X2-
P2X3-
P2X4-
P2X5-
P2X6-
P2X7-
P2X8-
P2X9-
P2X10-
P2X11-
P2X12-
P2X13-
P2X14-
P2Y1+
P2Y2+
P2Y3+
P2Y4+
P2Y5+
P2Y6+
P2Y7+
P2Y8+
P2Y9+
P2Y10+
P2Y11+
P2Y12+
P2Y13+
P2Y14+
P2Y15+
P2Y16+
P2Y17+
P2Y18+
P2Y19+
P2Y20+
P2Y21+
P2Y1-
P2Y2-
P2Y3-
P2Y4-
P2Y5-
P2Y6-
P2Y7-
P2Y8-
P2Y9-
P2Y10-
P2Y11-
P2Y12-
P2Y13-
P2Y14-
P2Y15-
P2Y16-
P2Y17-
P2Y18-
P2Y19-
P2Y20-
P2Y21-
**TRACKING**
pFoundTrack :{pFoundTrack.npassed} eff: {pFoundTrack.npassed/(P.Trig.scaler+.0001):%5.3f} BAD = ??
pFound1Track :{pFound1Track.npassed} eff: {pFound1Track.npassed/(P.Trig.scaler+.0001):%5.3f}
pFound2Track :{pFound2Track.npassed} eff: {pFound2Track.npassed/(P.Trig.scaler+.0001):%5.3f}
pFound3Track :{pFound3Track.npassed} eff: {pFound3Track.npassed/(P.Trig.scaler+.0001):%5.3f}
pFound4Track :{pFound4Track.npassed} eff: {pFound4Track.npassed/(P.Trig.scaler+.0001):%5.3f}
pCleanTrack :{pCleanTrack.npassed} eff: {pCleanTrack.npassed/(P.Trig.scaler+.0001):%5.3f} BAD = ??
1pCleanTrack:{1pCleanTrack.npassed} eff: {1pCleanTrack.npassed/(P.Trig.scaler+.0001):%5.3f}
2pCleanTrack:{2pCleanTrack.npassed} eff: {2pCleanTrack.npassed/(P.Trig.scaler+.0001):%5.3f}
3pCleanTrack:{3pCleanTrack.npassed} eff: {3pCleanTrack.npassed/(P.Trig.scaler+.0001):%5.3f}
4pCleanTrack:{4pCleanTrack.npassed} eff: {4pCleanTrack.npassed/(P.Trig.scaler+.0001):%5.3f}
****************************** ******************************
* SHMS TRACKING EFFICIENCIES * * SHMS TRACKING EFFICIENCIES *
****************************** ******************************
...@@ -88,3 +328,4 @@ pscinshouldh : {shmsScinShouldh.npassed} ...@@ -88,3 +328,4 @@ pscinshouldh : {shmsScinShouldh.npassed}
SING FID TRACK EFFIC : {shmsScinDid.npassed / (shmsScinShould.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShould.npassed-shmsScinDid.npassed) / (shmsScinShould.npassed+.0001)):%8.4f} SING FID TRACK EFFIC : {shmsScinDid.npassed / (shmsScinShould.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShould.npassed-shmsScinDid.npassed) / (shmsScinShould.npassed+.0001)):%8.4f}
E SING FID TRACK EFFIC : {shmsScinDide.npassed / (shmsScinShoulde.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShoulde.npassed-shmsScinDide.npassed) / (shmsScinShoulde.npassed+.0001)):%8.4f} E SING FID TRACK EFFIC : {shmsScinDide.npassed / (shmsScinShoulde.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShoulde.npassed-shmsScinDide.npassed) / (shmsScinShoulde.npassed+.0001)):%8.4f}
HADRON SING FID TRACK EFFIC : {shmsScinDidh.npassed / (shmsScinShouldh.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShouldh.npassed-shmsScinDidh.npassed) / (shmsScinShouldh.npassed+.0001)):%8.4f} HADRON SING FID TRACK EFFIC : {shmsScinDidh.npassed / (shmsScinShouldh.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShouldh.npassed-shmsScinDidh.npassed) / (shmsScinShouldh.npassed+.0001)):%8.4f}
TEMPLATES/SHMS/SCALERS/pscalers.template
+ 4
− 3
View file @ 08be358f
...@@ -7,16 +7,15 @@ BCM2 : {(P.BCM2.scalerRate-250000)/(3954):%3.3f} uA Total charge = {(P.BCM ...@@ -7,16 +7,15 @@ BCM2 : {(P.BCM2.scalerRate-250000)/(3954):%3.3f} uA Total charge = {(P.BCM
Unser : {(P.Unser.scalerRate-393000)/(4000):%3.3f} uA Total charge = {(P.Unser.scalerRate-393000) / (4000)*P.1Mhz.scaler/1000000.:%7.3f} uC Unser : {(P.Unser.scalerRate-393000)/(4000):%3.3f} uA Total charge = {(P.Unser.scalerRate-393000) / (4000)*P.1Mhz.scaler/1000000.:%7.3f} uC
All triggers : {all_trigs.npassed} All triggers : {all_trigs.npassed}
sTrig : {P.Trig.scaler:%8d} [{P.Trig.scalerRate:%7.1f}] Trig : {P.Trig.scaler:%8d} [{P.Trig.scalerRate:%7.1f}]
Rate : {P.Trig.scalerRate/1000.:%7.3f} kHz Rate : {P.Trig.scalerRate/1000.:%7.3f} kHz
Live Time : {(all_trigs.npassed / P.Trig.scaler)*100.0:%3.2f} % Live Time : {(all_trigs.npassed / P.Trig.scaler)*100.0:%3.2f} %
Dead Time : {100.0 - (all_trigs.npassed / P.Trig.scaler)*100.0:%3.2f} % Dead Time : {100.0 - (all_trigs.npassed / P.Trig.scaler)*100.0:%3.2f} %
******HARDWARE SCALERS****** ******HARDWARE SCALERS******
First column is the name, second column is the number of counts, third column is the rate.
*HODOSCOPES* *HODOSCOPES*
Scint Counts Rate
P1X1+: {P.hod.1x1.posScaler:%8d} [ {P.hod.1x1.posScalerRate:%7.1f} ] P1X1+: {P.hod.1x1.posScaler:%8d} [ {P.hod.1x1.posScalerRate:%7.1f} ]
P1X2+: {P.hod.1x2.posScaler:%8d} [ {P.hod.1x2.posScalerRate:%7.1f} ] P1X2+: {P.hod.1x2.posScaler:%8d} [ {P.hod.1x2.posScalerRate:%7.1f} ]
P1X3+: {P.hod.1x3.posScaler:%8d} [ {P.hod.1x3.posScalerRate:%7.1f} ] P1X3+: {P.hod.1x3.posScaler:%8d} [ {P.hod.1x3.posScalerRate:%7.1f} ]
...@@ -160,4 +159,6 @@ AERSUM: {P.AERSUM.scaler:%8d} [{P.AERSUM.scalerRate:%7.1f}] Sum of aerogel sign ...@@ -160,4 +159,6 @@ AERSUM: {P.AERSUM.scaler:%8d} [{P.AERSUM.scalerRate:%7.1f}] Sum of aerogel sign
PSHWRLO:{P.PSHWRLO.scaler:%8d} [{P.PSHWRLO.scalerRate:%7.1f}] Sum of preshower signals that pass a discriminator threshold PSHWRLO:{P.PSHWRLO.scaler:%8d} [{P.PSHWRLO.scalerRate:%7.1f}] Sum of preshower signals that pass a discriminator threshold
PSHWRHI:{P.PSHWRHI.scaler:%8d} [{P.PSHWRHI.scalerRate:%7.1f}] Sum of preshower signals that pass a slightly higher discriminator threshold PSHWRHI:{P.PSHWRHI.scaler:%8d} [{P.PSHWRHI.scalerRate:%7.1f}] Sum of preshower signals that pass a slightly higher discriminator threshold
*CHERENKOVS??*
******END HARDWARE SCALERS****** ******END HARDWARE SCALERS******
\ No newline at end of file
TEMPLATES/SHMS/STACK/pstackana.template
+ 262
− 68
View file @ 08be358f
Run #: {gen_run_number} Run #{gen_run_number}
Run Time : {P.1Mhz.scaler} {P.1Mhz.scaler/1000000.} sec
BCM1 : {(P.BCM1.scalerRate-250000)/(4673):%3.3f} uA Total charge = {(P.BCM1.scalerRate-250000) / (4673)*P.1Mhz.scaler/1000000.:%7.3f} uC
BCM2 : {(P.BCM2.scalerRate-250000)/(3954):%3.3f} uA Total charge = {(P.BCM2.scalerRate-250000) / (3954)*P.1Mhz.scaler/1000000.:%7.3f} uC
Unser : {(P.Unser.scalerRate-393000)/(4000):%3.3f} uA Total charge = {(P.Unser.scalerRate-393000) / (4000)*P.1Mhz.scaler/1000000.:%7.3f} uC
All triggers : {all_trigs.npassed} All triggers : {all_trigs.npassed}
Rate : {P.Trig.scalerRate/1000.:%7.3f} kHz
Live Time : {(all_trigs.npassed / P.Trig.scaler)*100.0:%3.2f} %
Dead Time : {100.0 - (all_trigs.npassed / P.Trig.scaler)*100.0:%3.2f} %
**DRIFT CHAMBER**
good_S1_time Counts: {good_S1_time.npassed} / all_trigs : {good_S1_time.npassed / all_trigs.npassed} good_S1_time Counts: {good_S1_time.npassed} / all_trigs : {good_S1_time.npassed / all_trigs.npassed}
good_S2X_time Counts: {good_S2X_time.npassed} / all_trigs : {good_S2X_time.npassed / all_trigs.npassed} good_S2X_time Counts: {good_S2X_time.npassed} / all_trigs : {good_S2X_time.npassed / all_trigs.npassed}
good_S1_S2X_time Counts: {good_S1_S2X_time.npassed} / all_trigs : {good_S1_S2X_time.npassed / all_trigs.npassed} good_S1_S2X_time Counts: {good_S1_S2X_time.npassed} / all_trigs : {good_S1_S2X_time.npassed / all_trigs.npassed}
...@@ -95,37 +83,39 @@ SING FID TRACK EFFIC : {shmsScinDid.npassed / (shmsScinShould.npassed+ ...@@ -95,37 +83,39 @@ SING FID TRACK EFFIC : {shmsScinDid.npassed / (shmsScinShould.npassed+
E SING FID TRACK EFFIC : {shmsScinDide.npassed / (shmsScinShoulde.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShoulde.npassed-shmsScinDide.npassed) / (shmsScinShoulde.npassed+.0001)):%8.4f} E SING FID TRACK EFFIC : {shmsScinDide.npassed / (shmsScinShoulde.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShoulde.npassed-shmsScinDide.npassed) / (shmsScinShoulde.npassed+.0001)):%8.4f}
HADRON SING FID TRACK EFFIC : {shmsScinDidh.npassed / (shmsScinShouldh.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShouldh.npassed-shmsScinDidh.npassed) / (shmsScinShouldh.npassed+.0001)):%8.4f} HADRON SING FID TRACK EFFIC : {shmsScinDidh.npassed / (shmsScinShouldh.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShouldh.npassed-shmsScinDidh.npassed) / (shmsScinShouldh.npassed+.0001)):%8.4f}
shmsDC1_1hit_x1: {shmsDC1_1hit_x1.npassed} I'm pretty sure that these are the "raw" number of counts. "Raw" means one or more hits per dc plane.
shmsDC1_1hit_u1: {shmsDC1_1hit_u1.npassed} shmsDC1_1hit_x1: {shmsDC1_1hit_x1.npassed} ;eff:
shmsDC1_1hit_u2: {shmsDC1_1hit_u2.npassed} shmsDC1_1hit_u1: {shmsDC1_1hit_u1.npassed} ;eff:
shmsDC1_1hit_v1: {shmsDC1_1hit_v1.npassed} shmsDC1_1hit_u2: {shmsDC1_1hit_u2.npassed} ;eff:
shmsDC1_1hit_v2: {shmsDC1_1hit_v2.npassed} shmsDC1_1hit_v1: {shmsDC1_1hit_v1.npassed} ;eff:
shmsDC1_1hit_x2: {shmsDC1_1hit_x2.npassed} shmsDC1_1hit_v2: {shmsDC1_1hit_v2.npassed} ;eff:
shmsDC1_1hit_x2: {shmsDC1_1hit_x2.npassed} ;eff:
shmsDC2_1hit_x1: {shmsDC2_1hit_x1.npassed}
shmsDC2_1hit_u1: {shmsDC2_1hit_u1.npassed} shmsDC2_1hit_x1: {shmsDC2_1hit_x1.npassed} ;eff:
shmsDC2_1hit_u2: {shmsDC2_1hit_u2.npassed} shmsDC2_1hit_u1: {shmsDC2_1hit_u1.npassed} ;eff:
shmsDC2_1hit_v1: {shmsDC2_1hit_v1.npassed} shmsDC2_1hit_u2: {shmsDC2_1hit_u2.npassed} ;eff:
shmsDC2_1hit_v2: {shmsDC2_1hit_v2.npassed} shmsDC2_1hit_v1: {shmsDC2_1hit_v1.npassed} ;eff:
shmsDC2_1hit_x2: {shmsDC2_1hit_x2.npassed} shmsDC2_1hit_v2: {shmsDC2_1hit_v2.npassed} ;eff:
shmsDC2_1hit_x2: {shmsDC2_1hit_x2.npassed} ;eff:
goodHDC1x1: {goodHDC1x1.npassed} eff : {goodHDC1x1.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC1u2: {goodHDC1u2.npassed} eff : {goodHDC1u2.npassed/(P.Trig.scaler+.0001):%5.3f} "Good" means one or two hits per dc plane.
goodHDC1u1: {goodHDC1u1.npassed} eff : {goodHDC1u1.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC1x1: {goodHDC1x1.npassed} eff : {goodHDC1x1.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC1v1: {goodHDC1v1.npassed} eff : {goodHDC1v1.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC1u2: {goodHDC1u2.npassed} eff : {goodHDC1u2.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC1v2: {goodHDC1v2.npassed} eff : {goodHDC1v2.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC1u1: {goodHDC1u1.npassed} eff : {goodHDC1u1.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC1x2: {goodHDC1x2.npassed} eff : {goodHDC1x2.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC1v1: {goodHDC1v1.npassed} eff : {goodHDC1v1.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC1v2: {goodHDC1v2.npassed} eff : {goodHDC1v2.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC2x1: {goodHDC2x1.npassed} eff : {goodHDC2x1.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC1x2: {goodHDC1x2.npassed} eff : {goodHDC1x2.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC2u2: {goodHDC2u2.npassed} eff : {goodHDC2u2.npassed/(P.Trig.scaler+.0001):%5.3f}
goodHDC2u1: {goodHDC2u1.npassed} eff : {goodHDC2u1.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC2x1: {goodHDC2x1.npassed} eff : {goodHDC2x1.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC2v1: {goodHDC2v1.npassed} eff : {goodHDC2v1.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC2u2: {goodHDC2u2.npassed} eff : {goodHDC2u2.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC2v2: {goodHDC2v2.npassed} eff : {goodHDC2v2.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC2u1: {goodHDC2u1.npassed} eff : {goodHDC2u1.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC2x2: {goodHDC2x2.npassed} eff : {goodHDC2x2.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC2v1: {goodHDC2v1.npassed} eff : {goodHDC2v1.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC2v2: {goodHDC2v2.npassed} eff : {goodHDC2v2.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC1: {goodHDC1.npassed} eff : {goodHDC1.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC2x2: {goodHDC2x2.npassed} eff : {goodHDC2x2.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC2: {goodHDC2.npassed} eff : {goodHDC2.npassed/(P.Trig.scaler+.0001):%5.3f}
bothgood: {bothgood.npassed} eff : {bothgood.npassed/(P.Trig.scaler+.0001):%5.3f} goodHDC1: {goodHDC1.npassed} eff : {goodHDC1.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodHDC2: {goodHDC2.npassed} eff : {goodHDC2.npassed/(shmscoin_event.npassed+.0001):%5.3f}
bothgood: {bothGood.npassed} eff : {bothGood.npassed/(shmscoin_event.npassed+.0001):%5.3f}
realhdc1x1: {realhdc1x1.npassed} realhdc1x1: {realhdc1x1.npassed}
realhdc1u2: {realhdc1u2.npassed} realhdc1u2: {realhdc1u2.npassed}
...@@ -142,18 +132,35 @@ realhdc2v2: {realhdc2v2.npassed} ...@@ -142,18 +132,35 @@ realhdc2v2: {realhdc2v2.npassed}
realhdc2x2: {realhdc2x2.npassed} realhdc2x2: {realhdc2x2.npassed}
**HODOSCOPE** **HODOSCOPE**
anyhs1x : {anyhs1x.npassed} eff: {anyhs1x.npassed/(P.Trig.scaler+.0001):%5.3f} BAD = 0.99
anyhs1y : {anyhs1y.npassed} eff: {anyhs1y.npassed/(P.Trig.scaler+.0001):%5.3f} "Any" means one or more hits per scint plane.
anyhs2x : {anyhs2x.npassed} eff: {anyhs2x.npassed/(P.Trig.scaler+.0001):%5.3f} anyhs1x : {anyhs1x.npassed} eff: {anyhs1x.npassed/(shmscoin_event.npassed+.0001):%5.3f} BAD = ??
anyhs2y : {anyhs2y.npassed} eff: {anyhs2y.npassed/(P.Trig.scaler+.0001):%5.3f} anyhs1y : {anyhs1y.npassed} eff: {anyhs1y.npassed/(shmscoin_event.npassed+.0001):%5.3f}
anyhs2x : {anyhs2x.npassed} eff: {anyhs2x.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodps1x : {goodps1x.npassed} eff: {goodps1x.npassed/(P.Trig.scaler+.0001):%5.3f} anyhs2y : {anyhs2y.npassed} eff: {anyhs2y.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodps1y : {goodps1y.npassed} eff: {goodps1y.npassed/(P.Trig.scaler+.0001):%5.3f}
goodps1 : {goodps1.npassed} eff: {goodps1.npassed/(P.Trig.scaler+.0001):%5.3f} "Good" means one or two hits per scint plane.
goodps2x : {goodps2x.npassed} eff: {goodps2x.npassed/(P.Trig.scaler+.0001):%5.3f} goodps1x : {goodps1x.npassed} eff: {goodps1x.npassed/(shmscoin_event.npassed+.0001):%5.3f} BAD = ??
goodps2y : {goodps2y.npassed} eff: {goodps2y.npassed/(P.Trig.scaler+.0001):%5.3f} goodps1y : {goodps1y.npassed} eff: {goodps1y.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodps2 : {goodps2.npassed} eff: {goodps2.npassed/(P.Trig.scaler+.0001):%5.3f} goodps1 : {goodps1.npassed} eff: {goodps1.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodps1s2: {goodps1s2.npassed} eff: {goodps1s2.npassed/P.Trig.scaler+.0001):%5.3f} goodps2x : {goodps2x.npassed} eff: {goodps2x.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodps2y : {goodps2y.npassed} eff: {goodps2y.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodps2 : {goodps2.npassed} eff: {goodps2.npassed/(shmscoin_event.npassed+.0001):%5.3f}
goodps1s2: {goodps1s2.npassed} eff: {goodps1s2.npassed/(shmscoin_event.npassed+.0001):%5.3f}
**TRACKING**
pFoundTrack :{pFoundTrack.npassed} eff: {pFoundTrack.npassed/(shmscoin_event.npassed+.0001):%5.3f} BAD = ??
pFound1Track :{pFound1Track.npassed} eff: {pFound1Track.npassed/(shmscoin_event.npassed+.0001):%5.3f}
pFound2Track :{pFound2Track.npassed} eff: {pFound2Track.npassed/(shmscoin_event.npassed+.0001):%5.3f}
pFound3Track :{pFound3Track.npassed} eff: {pFound3Track.npassed/(shmscoin_event.npassed+.0001):%5.3f}
pFound4Track :{pFound4Track.npassed} eff: {pFound4Track.npassed/(shmscoin_event.npassed+.0001):%5.3f}
pCleanTrack :{pCleanTrack.npassed} eff: {pCleanTrack.npassed/(shmscoin_event.npassed+.0001):%5.3f} BAD = ??
1pCleanTrack:{1pCleanTrack.npassed} eff: {1pCleanTrack.npassed/(shmscoin_event.npassed+.0001):%5.3f}
2pCleanTrack:{2pCleanTrack.npassed} eff: {2pCleanTrack.npassed/(shmscoin_event.npassed+.0001):%5.3f}
3pCleanTrack:{3pCleanTrack.npassed} eff: {3pCleanTrack.npassed/(shmscoin_event.npassed+.0001):%5.3f}
4pCleanTrack:{4pCleanTrack.npassed} eff: {4pCleanTrack.npassed/(shmscoin_event.npassed+.0001):%5.3f}
**CHERENKOVS AND CAL** **CHERENKOVS AND CAL**
cer_ng_elec : {cer_ng_elec.npassed} cer_ng_elec : {cer_ng_elec.npassed}
...@@ -161,6 +168,7 @@ cer_ng_pi : {cer_ng_pi.npassed} ...@@ -161,6 +168,7 @@ cer_ng_pi : {cer_ng_pi.npassed}
cer_hg_elec : {cer_hg_elec.npassed} cer_hg_elec : {cer_hg_elec.npassed}
cer_hg_pi : {cer_hg_pi.npassed} cer_hg_pi : {cer_hg_pi.npassed}
cer_pi_both : {cer_pi_both.npassed} cer_pi_both : {cer_pi_both.npassed}
cer_elec_both : {cer_elec_both.npassed} cer_elec_both : {cer_elec_both.npassed}
cal_elec : {cal_elec.npassed} cal_elec : {cal_elec.npassed}
cal_pi : {cal_pi.npassed} cal_pi : {cal_pi.npassed}
...@@ -172,15 +180,201 @@ p1hit1_cer_elec : {p1hit1_cer_elec.npassed} ...@@ -172,15 +180,201 @@ p1hit1_cer_elec : {p1hit1_cer_elec.npassed}
pCleanTrack_cal_elec : {pCleanTrack_cal_elec.npassed} pCleanTrack_cal_elec : {pCleanTrack_cal_elec.npassed}
p1hit1_cal_elec : {p1hit1_cal_elec.npassed} p1hit1_cal_elec : {p1hit1_cal_elec.npassed}
**TRACKING** ************
pFoundTrack :{pFoundTrack.npassed} eff: {pFoundTrack.npassed/(P.Trig.scaler+.0001):%5.3f} BAD = .95 * Cerenkov *
pFound1Track :{pFound1Track.npassed} eff: {pFound1Track.npassed/(P.Trig.scaler+.0001):%5.3f} ************
pFound2Track :{pFound2Track.npassed} eff: {pFound2Track.npassed/(P.Trig.scaler+.0001):%5.3f}
pFound3Track :{pFound3Track.npassed} eff: {pFound3Track.npassed/(P.Trig.scaler+.0001):%5.3f} Good Track Requirements:
pFound4Track :{pFound4Track.npassed} eff: {pFound4Track.npassed/(P.Trig.scaler+.0001):%5.3f} 1. Only one track found in the focal plane
2. chisq/dof < {phgcer_red_chi2_max:%5.1f}
pCleanTrack :{pCleanTrack.npassed} eff: {pCleanTrack.npassed/(P.Trig.scaler+.0001):%5.3f} BAD = 0.95 3. {phgcer_beta_min:%5.3f} < beta < {phgcer_beta_max:%5.3f}
1pCleanTrack:{1pCleanTrack.npassed} eff: {1pCleanTrack.npassed/(P.Trig.scaler+.0001):%5.3f} 4. {phgcer_enorm_min:%5.3f} < calorimeter energy < {phgcer_enorm_max:%5.3f}
2pCleanTrack:{2pCleanTrack.npassed} eff: {2pCleanTrack.npassed/(P.Trig.scaler+.0001):%5.3f} Threshold set at {phgcer_npe_thresh:%4.1f}
3pCleanTrack:{3pCleanTrack.npassed} eff: {3pCleanTrack.npassed/(P.Trig.scaler+.0001):%5.3f}
4pCleanTrack:{4pCleanTrack.npassed} eff: {4pCleanTrack.npassed/(P.Trig.scaler+.0001):%5.3f} *HGC EFF* 4PMTs
SHMS HGC Region 1 efficiency: {SHMS_hgcer_track_matched_region_1.npassed}/{SHMS_hgcer_track_fired_region_1.npassed} = {SHMS_hgcer_track_matched_region_1.npassed} of {SHMS_hgcer_track_fired_region_1.npassed} of good tracks.
SHMS HGC Region 2 efficiency: {SHMS_hgcer_track_matched_region_2.npassed}/{SHMS_hgcer_track_fired_region_2.npassed} = {SHMS_hgcer_track_matched_region_2.npassed} of {SHMS_hgcer_track_fired_region_2.npassed} of good tracks.
SHMS HGC Region 3 efficiency: {SHMS_hgcer_track_matched_region_3.npassed}/{SHMS_hgcer_track_fired_region_3.npassed} = {SHMS_hgcer_track_matched_region_3.npassed} of {SHMS_hgcer_track_fired_region_3.npassed} of good tracks.
SHMS HGC Region 4 efficiency: {SHMS_hgcer_track_matched_region_4.npassed}/{SHMS_hgcer_track_fired_region_4.npassed} = {SHMS_hgcer_track_matched_region_4.npassed} of {SHMS_hgcer_track_fired_region_4.npassed} of good tracks.
Overall HGC Efficiency: {SHMS_hgcer_track_matched_tot.npassed}/{SHMS_hgcer_track_fired_tot.npassed} = {SHMS_hgcer_track_matched_tot.npassed} of {SHMS_hgcer_track_fired_tot.npassed} of good tracks.
***************************
* NGC and AEROGEL DET need more beginning info:
***************************
*NGC EFF* 4PMTs
SHMS NGC Region 1 efficiency: {SHMS_ngcer_track_matched_region_1.npassed}/{SHMS_ngcer_track_fired_region_1.npassed} = {SHMS_ngcer_track_matched_region_1.npassed} of {SHMS_ngcer_track_fired_region_1.npassed} of good tracks.
SHMS NGC Region 2 efficiency: {SHMS_ngcer_track_matched_region_2.npassed}/{SHMS_ngcer_track_fired_region_2.npassed} = {SHMS_ngcer_track_matched_region_2.npassed} of {SHMS_ngcer_track_fired_region_2.npassed} of good tracks.
SHMS NGC Region 3 efficiency: {SHMS_ngcer_track_matched_region_3.npassed}/{SHMS_ngcer_track_fired_region_3.npassed} = {SHMS_ngcer_track_matched_region_3.npassed} of {SHMS_ngcer_track_fired_region_3.npassed} of good tracks.
SHMS NGC Region 4 efficiency: {SHMS_ngcer_track_matched_region_4.npassed}/{SHMS_ngcer_track_fired_region_4.npassed} = {SHMS_ngcer_track_matched_region_4.npassed} of {SHMS_ngcer_track_fired_region_4.npassed} of good tracks.
Overall NGC Efficiency: {SHMS_ngcer_track_matched_tot.npassed}/{SHMS_ngcer_track_fired_tot.npassed} = {SHMS_ngcer_track_matched_tot.npassed} of {SHMS_ngcer_track_fired_tot.npassed} of good tracks.
*AEROGEL EFF* 7 PMT pairs
SHMS AERO Region 1 efficiency: {SHMS_aero_track_matched_region_1.npassed}/{SHMS_aero_track_fired_region_1.npassed} = {SHMS_aero_track_matched_region_1.npassed} of {SHMS_aero_track_fired_region_1.npassed} of good tracks.
SHMS AERO Region 2 efficiency: {SHMS_aero_track_matched_region_2.npassed}/{SHMS_aero_track_fired_region_2.npassed} = {SHMS_aero_track_matched_region_2.npassed} of {SHMS_aero_track_fired_region_2.npassed} of good tracks.
SHMS AERO Region 3 efficiency: {SHMS_aero_track_matched_region_3.npassed}/{SHMS_aero_track_fired_region_3.npassed} = {SHMS_aero_track_matched_region_3.npassed} of {SHMS_aero_track_fired_region_3.npassed} of good tracks.
SHMS AERO Region 4 efficiency: {SHMS_aero_track_matched_region_4.npassed}/{SHMS_aero_track_fired_region_4.npassed} = {SHMS_aero_track_matched_region_4.npassed} of {SHMS_aero_track_fired_region_4.npassed} of good tracks.
SHMS AERO Region 5 efficiency: {SHMS_aero_track_matched_region_5.npassed}/{SHMS_aero_track_fired_region_5.npassed} = {SHMS_aero_track_matched_region_5.npassed} of {SHMS_aero_track_fired_region_5.npassed} of good tracks.
SHMS AERO Region 6 efficiency: {SHMS_aero_track_matched_region_6.npassed}/{SHMS_aero_track_fired_region_6.npassed} = {SHMS_aero_track_matched_region_6.npassed} of {SHMS_aero_track_fired_region_6.npassed} of good tracks.
SHMS AERO Region 7 efficiency: {SHMS_aero_track_matched_region_7.npassed}/{SHMS_aero_track_fired_region_7.npassed} = {SHMS_aero_track_matched_region_7.npassed} of {SHMS_aero_track_fired_region_7.npassed} of good tracks.
Overall AERO Efficiency: {SHMS_aero_track_matched_tot.npassed}/{SHMS_aero_track_fired_tot.npassed} = {SHMS_aero_track_matched_tot.npassed} of {SHMS_aero_track_fired_tot.npassed} of good tracks.
****************************
* Calorimeter Efficiencies *
****************************
Efficiencies for calorimeter is the fraction of times block was hit when track
with chisquared/dof < {pstat_cal_maxchisq:%5.1f} came within {pstat_cal_slop:%4.1f} cm of the center.
and scal_npe_sum > 3.0 (hardwired). (is this still true?)
Events examined = strig = {shmscoin_event.npassed}
Tracks found = scleantrack = {pCleanTrack.npassed}
Tracks passing chisquared cut = {pstat_cal_numevents:%7d} (fix here)
Block eff Hits
-------------------------------------------------------------------------------------------------------
;Needs to be written inline.
**************************
* Hodoscope Efficiencies *
**************************
Efficiencies for hodoscopes is the fraction of times scin. was hit when track
with chisquared/dof < {pstat_maxchisq:%5.1f} came within {pstat_slop:%4.1f} cm of the center.
Events examined = strig = {shmscoin_event.npassed}
Tracks found = scleantrack = {pCleanTrack.npassed}
Tracks passing chisquared cut = {pstat_numevents} (fix here)
*HODO EFF* Need to checkout hodoeff module.
Scint Pos eff Neg eff OR eff AND eff Hits
-----------------------------------------------------------------------------------------------------
P1X1+
P1X2+
P1X3+
P1X4+
P1X5+
P1X6+
P1X7+
P1X8+
P1X9+
P1X10+
P1X11+
P1X12+
P1X13+
P1X1-
P1X2-
P1X3-
P1X4-
P1X5-
P1X6-
P1X7-
P1X8-
P1X9-
P1X10-
P1X11-
P1X12-
P1X13-
P1Y1+
P1Y2+
P1Y3+
P1Y4+
P1Y5+
P1Y6+
P1Y7+
P1Y8+
P1Y9+
P1Y10+
P1Y11+
P1Y12+
P1Y13+
P1Y1-
P1Y2-
P1Y3-
P1Y4-
P1Y5-
P1Y6-
P1Y7-
P1Y8-
P1Y9-
P1Y10-
P1Y11-
P1Y12-
P1Y13-
P2X1+
P2X2+
P2X3+
P2X4+
P2X5+
P2X6+
P2X7+
P2X8+
P2X9+
P2X10+
P2X11+
P2X12+
P2X13+
P2X14+
P2X1-
P2X2-
P2X3-
P2X4-
P2X5-
P2X6-
P2X7-
P2X8-
P2X9-
P2X10-
P2X11-
P2X12-
P2X13-
P2X14-
P2Y1+
P2Y2+
P2Y3+
P2Y4+
P2Y5+
P2Y6+
P2Y7+
P2Y8+
P2Y9+
P2Y10+
P2Y11+
P2Y12+
P2Y13+
P2Y14+
P2Y15+
P2Y16+
P2Y17+
P2Y18+
P2Y19+
P2Y20+
P2Y21+
P2Y1-
P2Y2-
P2Y3-
P2Y4-
P2Y5-
P2Y6-
P2Y7-
P2Y8-
P2Y9-
P2Y10-
P2Y11-
P2Y12-
P2Y13-
P2Y14-
P2Y15-
P2Y16-
P2Y17-
P2Y18-
P2Y19-
P2Y20-
P2Y21-
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