diff --git a/DEF-files/HMS/PRODUCTION/EPICS/hepics_vars.def b/DEF-files/HMS/PRODUCTION/EPICS/hepics_vars.def
index 4fd6b0b4c70446379fac95e06ad746c3bcf6f314..314810bc43f8faa6cc0bba3b1d465c5c2c19b77d 100644
--- a/DEF-files/HMS/PRODUCTION/EPICS/hepics_vars.def
+++ b/DEF-files/HMS/PRODUCTION/EPICS/hepics_vars.def
@@ -32,5 +32,4 @@ IPM3H07B.YRAW
IPM3H07C.XRAW
IPM3H07C.YRAW
-
-end epics
\ No newline at end of file
+end epics
diff --git a/SCRIPTS/src/replay_hms.cxx b/SCRIPTS/src/replay_hms.cxx
index 0814ed8e277f3b245c78f9d37715618d5e2e708c..db56e4652f7aad0b3e0a240859ea2f6fc0943fa6 100644
--- a/SCRIPTS/src/replay_hms.cxx
+++ b/SCRIPTS/src/replay_hms.cxx
@@ -25,6 +25,7 @@ using namespace std;
#include "THcGlobals.h"
#include "THcHallCSpectrometer.h"
#include "THcHelicity.h"
+#include "THcHelicityScaler.h"
#include "THcHodoEff.h"
#include "THcHodoscope.h"
#include "THcParmList.h"
@@ -190,6 +191,11 @@ int replay_hms(
hscaler->SetUseFirstEvent(kTRUE);
gHaEvtHandlers->Add(hscaler);
+ // helicity scaler
+ auto helscaler = new THcHelicityScaler("H", "Hall C helicity scalers");
+ hscaler->SetROC(5);
+ gHaEvtHandlers->Add(helscaler);
+
// Add event handler for prestart event 125.
THcConfigEvtHandler* hconfig = new THcConfigEvtHandler("hconfig", "Config Event type 125");
gHaEvtHandlers->Add(hconfig);
diff --git a/SCRIPTS/src/replay_shms.cxx b/SCRIPTS/src/replay_shms.cxx
index 285d4d045cf2b6a0182f2f91aef61fecf6547491..133e60cd7d599293bc7b8e8767aa4989483202de 100644
--- a/SCRIPTS/src/replay_shms.cxx
+++ b/SCRIPTS/src/replay_shms.cxx
@@ -25,6 +25,7 @@ using namespace std;
#include "THcGlobals.h"
#include "THcHallCSpectrometer.h"
#include "THcHelicity.h"
+#include "THcHelicityScaler.h"
#include "THcHodoEff.h"
#include "THcHodoscope.h"
#include "THcParmList.h"
@@ -197,6 +198,11 @@ int replay_shms(
pscaler->SetUseFirstEvent(kTRUE);
gHaEvtHandlers->Add(pscaler);
+ // helicity scaler
+ auto helscaler = new THcHelicityScaler("P", "Hall C helicity scalers");
+ hscaler->SetROC(8);
+ gHaEvtHandlers->Add(helscaler);
+
// Add event handler for prestart event 125.
THcConfigEvtHandler* pconfig = new THcConfigEvtHandler("pconfig", "Config Event type 125");
gHaEvtHandlers->Add(pconfig);
diff --git a/TEMPLATES/HMS/PRODUCTION/hstackana_production.template b/TEMPLATES/HMS/PRODUCTION/hstackana_production.template
index 34b02e99a34da829b2380d78fc70650e8e147a62..709ac837210f292ea5be9453f95a735b68740cab 100644
--- a/TEMPLATES/HMS/PRODUCTION/hstackana_production.template
+++ b/TEMPLATES/HMS/PRODUCTION/hstackana_production.template
@@ -11,34 +11,34 @@ Run Length : {H.1MHz.scalerTime:%.3f} sec
* Beamline
***********
With no cuts on BCM{gBCM_Current_threshold_index+1}.
-
-BCM1 Current: {H.BCM1.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM2 Current: {H.BCM2.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM4A Current: {H.BCM4A.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM4B Current: {H.BCM4B.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM4C Current: {H.BCM4C.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-Unser Current: {H.Unser.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+
+BCM1 Current: {H.BCM1.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM2 Current: {H.BCM2.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM4A Current: {H.BCM4A.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM4B Current: {H.BCM4B.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM4C Current: {H.BCM4C.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+Unser Current: {H.Unser.scalerCharge/H.1MHz.scalerTime:%.3f} uA
BCM1 Charge: {H.BCM1.scalerCharge:%.3f} uC
-BCM2 Charge: {H.BCM2.scalerCharge:%.3f} uC
-BCM4A Charge: {H.BCM4A.scalerCharge:%.3f} uC
-BCM4B Charge: {H.BCM4B.scalerCharge:%.3f} uC
-BCM4C Charge: {H.BCM4C.scalerCharge:%.3f} uC
+BCM2 Charge: {H.BCM2.scalerCharge:%.3f} uC
+BCM4A Charge: {H.BCM4A.scalerCharge:%.3f} uC
+BCM4B Charge: {H.BCM4B.scalerCharge:%.3f} uC
+BCM4C Charge: {H.BCM4C.scalerCharge:%.3f} uC
Unser Charge: {H.Unser.scalerCharge:%.3f} uC
Cut on BCM{gBCM_Current_threshold_index+1} current of {gBCM_Current_threshold} uA. Beam over threshold for {H.1MHz.scalerTimeCut:%.3f}s, or {((H.1MHz.scalerTimeCut/H.1MHz.scalerTime)*100.):%.3f}% of total run time.
-BCM1 Beam Cut Current: {H.BCM1.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
-BCM2 Beam Cut Current: {H.BCM2.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
-BCM4A Beam Cut Current: {H.BCM4A.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
-BCM4B Beam Cut Current: {H.BCM4B.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
-BCM4C Beam Cut Current: {H.BCM4C.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
-Unser Beam Cut Current: {H.Unser.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
+BCM1 Beam Cut Current: {H.BCM1.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
+BCM2 Beam Cut Current: {H.BCM2.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
+BCM4A Beam Cut Current: {H.BCM4A.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
+BCM4B Beam Cut Current: {H.BCM4B.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
+BCM4C Beam Cut Current: {H.BCM4C.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
+Unser Beam Cut Current: {H.Unser.scalerChargeCut/H.1MHz.scalerTimeCut:%.3f} uA
BCM1 Beam Cut Charge: {H.BCM1.scalerChargeCut:%.3f} uC
BCM2 Beam Cut Charge: {H.BCM2.scalerChargeCut:%.3f} uC
-BCM4A Beam Cut Charge: {H.BCM4A.scalerChargeCut:%.3f} uC
-BCM4B Beam Cut Charge: {H.BCM4B.scalerChargeCut:%.3f} uC
-BCM4C Beam Cut Charge: {H.BCM4C.scalerChargeCut:%.3f} uC
+BCM4A Beam Cut Charge: {H.BCM4A.scalerChargeCut:%.3f} uC
+BCM4B Beam Cut Charge: {H.BCM4B.scalerChargeCut:%.3f} uC
+BCM4C Beam Cut Charge: {H.BCM4C.scalerChargeCut:%.3f} uC
Unser Beam Cut Charge: {H.Unser.scalerChargeCut:%.3f} uC
********************
@@ -134,8 +134,8 @@ HMS TRIG1 Computer Live Time : {(hms_trigs.npassed / (H.hTRIG1.scaler/ghconfig_t
HMS TRIG2 Computer Live Time : {(hms_trigs.npassed / (H.hTRIG2.scaler/ghconfig_ti_ps_factors[1]))*100.0:%3.2f} %
HMS TRIG3 Computer Live Time : {(hms_trigs.npassed / (H.hTRIG3.scaler/ghconfig_ti_ps_factors[2]))*100.0:%3.2f} %
-HMS Computer Live Time : {(hcut_TRIG1.npassed / H.hTRIG1.scaler)*100.0:%3.4f} %
-HMS Computer Dead Time : {100.0 - (hcut_TRIG1.npassed / H.hTRIG1.scaler)*100.0:%3.4f} %
+HMS Computer Live Time : {(hcut_TRIG1.npassed / H.hTRIG1.scaler)*100.0:%3.4f} %
+HMS Computer Dead Time : {100.0 - (hcut_TRIG1.npassed / H.hTRIG1.scaler)*100.0:%3.4f} %
Pre-Scaled Ps1 HMS Computer Live Time : {(hcut_TRIG1.npassed / (H.hTRIG1.scaler/ghconfig_ti_ps_factors[0]))*100.0:%3.4f} %
Pre-Scaled Ps1 HMS Computer Dead Time : {100.0 - (hcut_TRIG1.npassed / (H.hTRIG1.scaler/ghconfig_ti_ps_factors[0]))*100.0:%3.4f} %
@@ -179,12 +179,12 @@ EL-CLEAN Pre-Trigger 50 ns Gate : {H.hTRIG3.scalerCut/H.1MHz.scalerTimeCut/1000
= Hodoscopes
=:=:=:=:=:=:=:
-H1X : {H.S1X.scalerCut} [ {(H.S1X.scalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between + and - sides of H1X
+H1X : {H.S1X.scalerCut} [ {(H.S1X.scalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between + and - sides of H1X
H1Y : {H.S1Y.scalerCut} [ {(H.S1Y.scalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between + and - sides of H1Y
H2X : {H.S2X.scalerCut} [ {(H.S2X.scalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between + and - sides of H2X
H2Y : {H.S2Y.scalerCut} [ {(H.S2Y.scalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between + and - sides of H2Y
-H1XH1Y : {H.S1XS1Y.scalerCut} [ {(H.S1XS1Y.scalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between H1X and H1Y planes
+H1XH1Y : {H.S1XS1Y.scalerCut} [ {(H.S1XS1Y.scalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between H1X and H1Y planes
H2XH2Y : {H.S2XS2Y.scalerCut} [ {(H.S2XS2Y.scalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between H2X and H2Y planes
=:=:=:=:=:=:
@@ -205,10 +205,10 @@ DSUM : {H.DSUM.scalerCut} [ {(H.DSUM.scalerCut/H.1MHz.scalerTimeCut)/1000.
****************
hmsDC1Planes_large Counts:{hmsDC1Planes_large.npassed} /hms_trigs : {hmsDC1Planes_large.npassed/hms_trigs.npassed}
-hmsDC2Planes_large Counts:{hmsDC2Planes_large.npassed} /hms_trigs : {hmsDC2Planes_large.npassed/hms_trigs.npassed}
+hmsDC2Planes_large Counts:{hmsDC2Planes_large.npassed} /hms_trigs : {hmsDC2Planes_large.npassed/hms_trigs.npassed}
hmsDC1Planes6 Counts: {hmsDC1Planes6hits.npassed} /hms_trigs : {hmsDC1Planes6hits.npassed/hms_trigs.npassed}
-hmsDC2Planes6 Counts: {hmsDC2Planes6hits.npassed} /hms_trigs : {hmsDC2Planes6hits.npassed/hms_trigs.npassed}
+hmsDC2Planes6 Counts: {hmsDC2Planes6hits.npassed} /hms_trigs : {hmsDC2Planes6hits.npassed/hms_trigs.npassed}
hmsDC1x1Planes5 Counts: {hmsDC1_5hits_x1.npassed} eff : {hmsDC1_6hits_x1.npassed/hmsDC1_5hits_x1.npassed}
hmsDC1u1Planes5 Counts: {hmsDC1_5hits_u1.npassed} eff : {hmsDC1_6hits_u1.npassed/hmsDC1_5hits_u1.npassed}
@@ -225,19 +225,19 @@ hmsDC2v2Planes5 Counts: {hmsDC2_5hits_v2.npassed} eff : {hmsDC2_6hits_v2.np
hmsDC2x2Planes5 Counts: {hmsDC2_5hits_x2.npassed} eff : {hmsDC2_6hits_x2.npassed/hmsDC2_5hits_x2.npassed}
I'm pretty sure that these are the "raw" number of counts. "Raw" means one or more hits per dc plane.
-hmsDC1_1hit_x1: {hmsDC1_1hit_x1.npassed}
-hmsDC1_1hit_u1: {hmsDC1_1hit_u1.npassed}
-hmsDC1_1hit_u2: {hmsDC1_1hit_u2.npassed}
-hmsDC1_1hit_v1: {hmsDC1_1hit_v1.npassed}
-hmsDC1_1hit_u2: {hmsDC1_1hit_u2.npassed}
-hmsDC1_1hit_x2: {hmsDC1_1hit_x2.npassed}
-
-hmsDC2_1hit_x1: {hmsDC2_1hit_x1.npassed}
-hmsDC2_1hit_u1: {hmsDC2_1hit_u1.npassed}
-hmsDC2_1hit_u2: {hmsDC2_1hit_u2.npassed}
-hmsDC2_1hit_v1: {hmsDC2_1hit_v1.npassed}
-hmsDC2_1hit_u2: {hmsDC2_1hit_u2.npassed}
-hmsDC2_1hit_x2: {hmsDC2_1hit_x2.npassed}
+hmsDC1_1hit_x1: {hmsDC1_1hit_x1.npassed}
+hmsDC1_1hit_u1: {hmsDC1_1hit_u1.npassed}
+hmsDC1_1hit_u2: {hmsDC1_1hit_u2.npassed}
+hmsDC1_1hit_v1: {hmsDC1_1hit_v1.npassed}
+hmsDC1_1hit_u2: {hmsDC1_1hit_u2.npassed}
+hmsDC1_1hit_x2: {hmsDC1_1hit_x2.npassed}
+
+hmsDC2_1hit_x1: {hmsDC2_1hit_x1.npassed}
+hmsDC2_1hit_u1: {hmsDC2_1hit_u1.npassed}
+hmsDC2_1hit_u2: {hmsDC2_1hit_u2.npassed}
+hmsDC2_1hit_v1: {hmsDC2_1hit_v1.npassed}
+hmsDC2_1hit_u2: {hmsDC2_1hit_u2.npassed}
+hmsDC2_1hit_x2: {hmsDC2_1hit_x2.npassed}
"Good" means one or two hits per dc plane.
hcut_goodHDC1x1: {hcut_goodHDC1x1.npassed} eff : {hcut_goodHDC1x1.npassed/(hms_trigs.npassed+.0001):%5.3f}
@@ -271,13 +271,13 @@ hcut_realhdc2u1: {hcut_realhdc2u1.npassed}
hcut_realhdc2v1: {hcut_realhdc2v1.npassed}
hcut_realhdc2v2: {hcut_realhdc2v2.npassed}
hcut_realhdc2x2: {hcut_realhdc2x2.npassed}
-
+
**HODOSCOPE**
"Any" means one or more hits per scint plane.
hcut_anys1x: {hcut_anys1x.npassed} eff: {hcut_anys1x.npassed/(hms_trigs.npassed+.0001):%5.3f} BAD = ??
hcut_anys1y: {hcut_anys1y.npassed} eff: {hcut_anys1y.npassed/(hms_trigs.npassed+.0001):%5.3f}
hcut_anys2x: {hcut_anys2x.npassed} eff: {hcut_anys2x.npassed/(hms_trigs.npassed+.0001):%5.3f}
-hcut_anys2y: {hcut_anys2y.npassed} eff: {hcut_anys2y.npassed/(hms_trigs.npassed+.0001):%5.3f}
+hcut_anys2y: {hcut_anys2y.npassed} eff: {hcut_anys2y.npassed/(hms_trigs.npassed+.0001):%5.3f}
"Good" means one or two hits per scint plane.
hcut_goods1x: {hcut_goods1x.npassed} eff: {hcut_goods1x.npassed/(hms_trigs.npassed+.0001):%5.3f} BAD = ??
@@ -289,13 +289,13 @@ hcut_goods2: {hcut_goods2.npassed} eff: {hcut_goods2.npassed/(hms_trigs.np
hcut_goods1s2: {hcut_goods1s2.npassed} eff: {hcut_goods1s2.npassed/(hms_trigs.npassed+.0001):%5.3f}
hcut_FoundTrack: {hcut_FoundTrack.npassed} eff: {hcut_FoundTrack.npassed/(hms_trigs.npassed+.0001):%5.3f} BAD = ??
-hcut_Found1Track: {hcut_Found1Track.npassed} eff: {hcut_Found1Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
-hcut_Found2Track: {hcut_Found2Track.npassed} eff: {hcut_Found2Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
-hcut_Found3Track: {hcut_Found3Track.npassed} eff: {hcut_Found3Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
-hcut_Found4Track: {hcut_Found4Track.npassed} eff: {hcut_Found4Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
+hcut_Found1Track: {hcut_Found1Track.npassed} eff: {hcut_Found1Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
+hcut_Found2Track: {hcut_Found2Track.npassed} eff: {hcut_Found2Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
+hcut_Found3Track: {hcut_Found3Track.npassed} eff: {hcut_Found3Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
+hcut_Found4Track: {hcut_Found4Track.npassed} eff: {hcut_Found4Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
hcut_Clean1Track: {hcut_Clean1Track.npassed} eff: {hcut_Clean1Track.npassed/(hms_trigs.npassed+.0001):%5.3f} BAD = ??
-hcut_Clean2Track: {hcut_Clean2Track.npassed} eff: {hcut_Clean2Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
+hcut_Clean2Track: {hcut_Clean2Track.npassed} eff: {hcut_Clean2Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
hcut_Clean3Track: {hcut_Clean3Track.npassed} eff: {hcut_Clean3Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
hcut_Clean4Track: {hcut_Clean4Track.npassed} eff: {hcut_Clean4Track.npassed/(hms_trigs.npassed+.0001):%5.3f}
hcut_CleanTrack: {hcut_CleanTrack.npassed} eff: {hcut_CleanTrack.npassed/(hms_trigs.npassed+.0001):%5.3f}
@@ -372,7 +372,7 @@ hC Counts: {H.cal.stat_trksum3} eff : {H.cal.stat_hitsum3 / H.cal.stat_trks
hD Counts: {H.cal.stat_trksum4} eff : {H.cal.stat_hitsum4 / H.cal.stat_trksum4}
**************************
-* Hodoscope Efficiencies *
+* Hodoscope Efficiencies *
**************************
Efficiencies for hodoscopes is the fraction of times scin. was hit when track
@@ -473,7 +473,7 @@ H1X7+: {H.hod.1x7.negScalerCut} [ {(H.hod.1x7.negScalerCut/H.1MHz.scalerTimeCut
H1X8+: {H.hod.1x8.negScalerCut} [ {(H.hod.1x8.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H1X9+: {H.hod.1x9.negScalerCut} [ {(H.hod.1x9.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H1X10+: {H.hod.1x10.negScalerCut} [ {(H.hod.1x10.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
-H1X11+: {H.hod.1x11.negScalerCut} [ {(H.hod.1x11.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
+H1X11+: {H.hod.1x11.negScalerCut} [ {(H.hod.1x11.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H1X12+: {H.hod.1x12.negScalerCut} [ {(H.hod.1x12.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H1X13+: {H.hod.1x13.negScalerCut} [ {(H.hod.1x13.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H1X14+: {H.hod.1x14.negScalerCut} [ {(H.hod.1x14.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
@@ -496,7 +496,7 @@ H1X13-: {H.hod.1x13.negScalerCut} [ {(H.hod.1x13.negScalerCut/H.1MHz.scalerTimeC
H1X14-: {H.hod.1x14.negScalerCut} [ {(H.hod.1x14.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H1X15-: {H.hod.1x15.negScalerCut} [ {(H.hod.1x15.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H1X16-: {H.hod.1x16.negScalerCut} [ {(H.hod.1x16.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
-
+
H1Y1+: {H.hod.1y1.negScalerCut} [ {(H.hod.1y1.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H1Y2+: {H.hod.1y2.negScalerCut} [ {(H.hod.1y2.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H1Y3+: {H.hod.1y3.negScalerCut} [ {(H.hod.1y3.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
@@ -555,7 +555,7 @@ H2X16-: {H.hod.2x16.negScalerCut} [ {(H.hod.2x16.negScalerCut/H.1MHz.scalerTimeC
H2Y1+: {H.hod.2y1.negScalerCut} [ {(H.hod.2y1.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H2Y2+: {H.hod.2y2.negScalerCut} [ {(H.hod.2y2.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
-H2Y3+: {H.hod.2y3.negScalerCut} [ {(H.hod.2y3.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
+H2Y3+: {H.hod.2y3.negScalerCut} [ {(H.hod.2y3.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H2Y4+: {H.hod.2y4.negScalerCut} [ {(H.hod.2y4.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H2Y5+: {H.hod.2y5.negScalerCut} [ {(H.hod.2y5.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H2Y6+: {H.hod.2y6.negScalerCut} [ {(H.hod.2y6.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
@@ -573,4 +573,15 @@ H2Y6-: {H.hod.2y6.negScalerCut} [ {(H.hod.2y6.negScalerCut/H.1MHz.scalerTimeCut
H2Y7-: {H.hod.2y7.negScalerCut} [ {(H.hod.2y7.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H2Y8-: {H.hod.2y8.negScalerCut} [ {(H.hod.2y8.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
H2Y9-: {H.hod.2y9.negScalerCut} [ {(H.hod.2y9.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
-H2Y10-: {H.hod.2y10.negScalerCut} [ {(H.hod.2y10.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
\ No newline at end of file
+H2Y10-: {H.hod.2y10.negScalerCut} [ {(H.hod.2y10.negScalerCut/H.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
+
+Scalers Gated Charge Charge Asymmetry (ppm)
+BCM1: {gH_hscaler_charge[0]:%12.2f} {gH_hscaler_charge_asy[0]*1e6:%12.2f}
+BCM2: {gH_hscaler_charge[1]:%12.2f} {gH_hscaler_charge_asy[1]*1e6:%12.2f}
+BCM4A: {gH_hscaler_charge[3]:%12.2f} {gH_hscaler_charge_asy[3]*1e6:%12.2f}
+BCM4B: {gH_hscaler_charge[4]:%12.2f} {gH_hscaler_charge_asy[4]*1e6:%12.2f}
+BCM4C: {gH_hscaler_charge[5]:%12.2f} {gH_hscaler_charge_asy[5]*1e6:%12.2f}
+Unser: {gH_hscaler_charge[2]:%12.2f} {gH_hscaler_charge_asy[2]*1e6:%12.2f}
+Time(s): {gH_hscaler_time:%12.2f} {gH_hscaler_time_asy*1e6:%12.2f}
+Gates: {(gH_hscaler_triggers_plus+gH_hscaler_triggers_minus):%12.2f} {gH_hscaler_trigger_asy*1e6:%12.2f}
+
diff --git a/TEMPLATES/HMS/SCALERS/hscalers.template b/TEMPLATES/HMS/SCALERS/hscalers.template
index 58a121868a66a6ba626e076bd58d48d298d53b54..6b113481b26917aee5f37e5259e6b9133cd077bb 100644
--- a/TEMPLATES/HMS/SCALERS/hscalers.template
+++ b/TEMPLATES/HMS/SCALERS/hscalers.template
@@ -10,36 +10,36 @@ Run Length : {H.1MHz.scalerTime:%.3f} sec
***********
* Beamline
***********
-
+
With no cuts on BCM{gBCM_Current_threshold_index+1}.
-
-BCM1 Current: {H.BCM1.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM2 Current: {H.BCM2.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM4A Current: {H.BCM4A.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM4B Current: {H.BCM4B.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM4C Current: {H.BCM4C.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-Unser Current: {H.Unser.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+
+BCM1 Current: {H.BCM1.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM2 Current: {H.BCM2.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM4A Current: {H.BCM4A.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM4B Current: {H.BCM4B.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM4C Current: {H.BCM4C.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+Unser Current: {H.Unser.scalerCharge/H.1MHz.scalerTime:%.3f} uA
BCM1 Charge: {H.BCM1.scalerCharge:%.3f} uC
-BCM2 Charge: {H.BCM2.scalerCharge:%.3f} uC
-BCM4A Charge: {H.BCM4A.scalerCharge:%.3f} uC
-BCM4B Charge: {H.BCM4B.scalerCharge:%.3f} uC
-BCM4C Charge: {H.BCM4C.scalerCharge:%.3f} uC
+BCM2 Charge: {H.BCM2.scalerCharge:%.3f} uC
+BCM4A Charge: {H.BCM4A.scalerCharge:%.3f} uC
+BCM4B Charge: {H.BCM4B.scalerCharge:%.3f} uC
+BCM4C Charge: {H.BCM4C.scalerCharge:%.3f} uC
Unser Charge: {H.Unser.scalerCharge:%.3f} uC
Cut on BCM{gBCM_Current_threshold_index+1} current of {gBCM_Current_threshold} uA. Beam over threshold for {H.1MHz.scalerTimeCut:%.3f}s, or {((H.1MHz.scalerTimeCut/H.1MHz.scalerTime)*100.):%.3f}% of total run time.
-BCM1 Beam Cut Current: {H.BCM1.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM2 Beam Cut Current: {H.BCM2.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM4A Beam Cut Current: {H.BCM4A.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM4B Beam Cut Current: {H.BCM4B.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-BCM4C Beam Cut Current: {H.BCM4C.scalerCharge/H.1MHz.scalerTime:%.3f} uA
-Unser Beam Cut Current: {H.Unser.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM1 Beam Cut Current: {H.BCM1.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM2 Beam Cut Current: {H.BCM2.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM4A Beam Cut Current: {H.BCM4A.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM4B Beam Cut Current: {H.BCM4B.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+BCM4C Beam Cut Current: {H.BCM4C.scalerCharge/H.1MHz.scalerTime:%.3f} uA
+Unser Beam Cut Current: {H.Unser.scalerCharge/H.1MHz.scalerTime:%.3f} uA
BCM1 Beam Cut Charge: {H.BCM1.scalerChargeCut:%.3f} uC
BCM2 Beam Cut Charge: {H.BCM2.scalerChargeCut:%.3f} uC
-BCM4A Beam Cut Charge: {H.BCM4A.scalerChargeCut:%.3f} uC
-BCM4B Beam Cut Charge: {H.BCM4B.scalerChargeCut:%.3f} uC
-BCM4C Beam Cut Charge: {H.BCM4C.scalerChargeCut:%.3f} uC
+BCM4A Beam Cut Charge: {H.BCM4A.scalerChargeCut:%.3f} uC
+BCM4B Beam Cut Charge: {H.BCM4B.scalerChargeCut:%.3f} uC
+BCM4C Beam Cut Charge: {H.BCM4C.scalerChargeCut:%.3f} uC
Unser Beam Cut Charge: {H.Unser.scalerChargeCut:%.3f} uC
@@ -58,7 +58,7 @@ Ps6_factor = {ghconfig_ti_ps_factors[5]}
* Triggers
***********
-=:=:=:=:=:=:=:
+=:=:=:=:=:=:=:
= 3/4 Trigger
=:=:=:=:=:=:=:
@@ -111,9 +111,9 @@ Estimated Physics 3/4 Triggers : {(H.hTRIG1.scalerRate - H.EDTM.scalerRate)*H.1M
Physics 3/4 Trigger Rate : {(H.hTRIG1.scalerRate - H.EDTM.scalerRate)/1000.:%.3f} kHz
Accepted Physics Triggers : {physics_accepted.npassed}
-=:=:=:=:=:=:=:=:
+=:=:=:=:=:=:=:=:
= HMS Triggers
-=:=:=:=:=:=:=:=:
+=:=:=:=:=:=:=:=:
hEL_LO_LO : {H.hEL_LO_LO.scaler} [ {(H.hEL_LO_LO.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
hEL_LO : {H.hEL_LO.scaler} [ {(H.hEL_LO.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
@@ -129,9 +129,9 @@ hTRIG4 : {H.hTRIG4.scaler} [ {(H.hTRIG4.scaler/H.1MHz.scalerTime)/1000.:%.3f}
hTRIG5 : {H.hTRIG5.scaler} [ {(H.hTRIG5.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
hTRIG6 : {H.hTRIG6.scaler} [ {(H.hTRIG6.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
-=:=:=:=:=:=:=:=:
+=:=:=:=:=:=:=:=:
= HMS Triggers
-=:=:=:=:=:=:=:=:
+=:=:=:=:=:=:=:=:
hEL_LO_LO : {H.hEL_LO_LO.scaler} [ {(H.hEL_LO_LO.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
hEL_LO : {H.hEL_LO.scaler} [ {(H.hEL_LO.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
@@ -158,8 +158,8 @@ hTRIG6_cut : {H.hTRIG6.scalerCut} [ {(H.hTRIG6.scaler/H.1MHz.scalerTime)/1000
= Live/Dead Time Calculations
=:=:=:=:=:=:=:=:=:=:=:=:=:=:=:=:
-HMS Computer Live Time : {(TRIG1.npassed / H.hTRIG1.scaler)*100.0:%3.4f} %
-HMS Computer Dead Time : {100.0 - (TRIG1.npassed / H.hTRIG1.scaler)*100.0:%3.4f} %
+HMS Computer Live Time : {(TRIG1.npassed / H.hTRIG1.scaler)*100.0:%3.4f} %
+HMS Computer Dead Time : {100.0 - (TRIG1.npassed / H.hTRIG1.scaler)*100.0:%3.4f} %
Pre-Scaled Ps1 HMS Computer Live Time : {(TRIG1.npassed / (H.hTRIG1.scaler/ghconfig_ti_ps_factors[0]))*100.0:%3.4f} %
Pre-Scaled Ps1 HMS Computer Dead Time : {100.0 - (TRIG1.npassed / (H.hTRIG1.scaler/ghconfig_ti_ps_factors[0]))*100.0:%3.4f} %
@@ -204,12 +204,12 @@ EL-CLEAN Pre-Trigger 50 ns Gate : {H.hTRIG3.scalerRate/1000.:%.3f} kHz
= Hodoscopes
=:=:=:=:=:=:=:
-H1X : {H.S1X.scaler} [ {(H.S1X.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ] AND between + and - sides of H1X
+H1X : {H.S1X.scaler} [ {(H.S1X.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ] AND between + and - sides of H1X
H1Y : {H.S1Y.scaler} [ {(H.S1Y.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ] AND between + and - sides of H1Y
H2X : {H.S2X.scaler} [ {(H.S2X.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ] AND between + and - sides of H2X
H2Y : {H.S2Y.scaler} [ {(H.S2Y.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ] AND between + and - sides of H2Y
-H1XH1Y : {H.S1XS1Y.scaler} [ {(H.S1XS1Y.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ] AND between H1X and H1Y planes
+H1XH1Y : {H.S1XS1Y.scaler} [ {(H.S1XS1Y.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ] AND between H1X and H1Y planes
H2XH2Y : {H.S2XS2Y.scaler} [ {(H.S2XS2Y.scaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ] AND between H2X and H2Y planes
=:=:=:=:=:=:
@@ -244,7 +244,7 @@ H1X7+: {H.hod.1x7.posScaler} [ {(H.hod.1x7.posScaler/H.1MHz.scalerTime)/1000.:%
H1X8+: {H.hod.1x8.posScaler} [ {(H.hod.1x8.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H1X9+: {H.hod.1x9.posScaler} [ {(H.hod.1x9.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H1X10+: {H.hod.1x10.posScaler} [ {(H.hod.1x10.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
-H1X11+: {H.hod.1x11.posScaler} [ {(H.hod.1x11.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
+H1X11+: {H.hod.1x11.posScaler} [ {(H.hod.1x11.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H1X12+: {H.hod.1x12.posScaler} [ {(H.hod.1x12.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H1X13+: {H.hod.1x13.posScaler} [ {(H.hod.1x13.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H1X14+: {H.hod.1x14.posScaler} [ {(H.hod.1x14.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
@@ -267,7 +267,7 @@ H1X13-: {H.hod.1x13.negScaler} [ {(H.hod.1x13.negScaler/H.1MHz.scalerTime)/1000.
H1X14-: {H.hod.1x14.negScaler} [ {(H.hod.1x14.negScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H1X15-: {H.hod.1x15.negScaler} [ {(H.hod.1x15.negScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H1X16-: {H.hod.1x16.negScaler} [ {(H.hod.1x16.negScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
-
+
H1Y1+: {H.hod.1y1.posScaler} [ {(H.hod.1y1.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H1Y2+: {H.hod.1y2.posScaler} [ {(H.hod.1y2.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H1Y3+: {H.hod.1y3.posScaler} [ {(H.hod.1y3.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
@@ -326,7 +326,7 @@ H2X16-: {H.hod.2x16.negScaler} [ {(H.hod.2x16.negScaler/H.1MHz.scalerTime)/1000.
H2Y1+: {H.hod.2y1.posScaler} [ {(H.hod.2y1.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H2Y2+: {H.hod.2y2.posScaler} [ {(H.hod.2y2.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
-H2Y3+: {H.hod.2y3.posScaler} [ {(H.hod.2y3.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
+H2Y3+: {H.hod.2y3.posScaler} [ {(H.hod.2y3.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H2Y4+: {H.hod.2y4.posScaler} [ {(H.hod.2y4.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H2Y5+: {H.hod.2y5.posScaler} [ {(H.hod.2y5.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H2Y6+: {H.hod.2y6.posScaler} [ {(H.hod.2y6.posScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
@@ -344,4 +344,5 @@ H2Y6-: {H.hod.2y6.negScaler} [ {(H.hod.2y6.negScaler/H.1MHz.scalerTime)/1000.:%
H2Y7-: {H.hod.2y7.negScaler} [ {(H.hod.2y7.negScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H2Y8-: {H.hod.2y8.negScaler} [ {(H.hod.2y8.negScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
H2Y9-: {H.hod.2y9.negScaler} [ {(H.hod.2y9.negScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
-H2Y10-: {H.hod.2y10.negScaler} [ {(H.hod.2y10.negScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
\ No newline at end of file
+H2Y10-: {H.hod.2y10.negScaler} [ {(H.hod.2y10.negScaler/H.1MHz.scalerTime)/1000.:%.3f} kHz ]
+
diff --git a/TEMPLATES/SHMS/PRODUCTION/pstackana_production.template b/TEMPLATES/SHMS/PRODUCTION/pstackana_production.template
index 8c0b23a1195e4761de98fba6601dbb3b79fa8481..5d15b76c728ea34cf24059d15f703521f03e5e3b 100644
--- a/TEMPLATES/SHMS/PRODUCTION/pstackana_production.template
+++ b/TEMPLATES/SHMS/PRODUCTION/pstackana_production.template
@@ -11,34 +11,34 @@ Run Length : {P.1MHz.scalerTime:%.3f} sec
* Beamline
***********
With no cuts on BCM{gBCM_Current_threshold_index+1}.
-
-BCM1 Current: {P.BCM1.scalerCharge/P.1MHz.scalerTime:%.3f} uA
-BCM2 Current: {P.BCM2.scalerCharge/P.1MHz.scalerTime:%.3f} uA
+
+BCM1 Current: {P.BCM1.scalerCharge/P.1MHz.scalerTime:%.3f} uA
+BCM2 Current: {P.BCM2.scalerCharge/P.1MHz.scalerTime:%.3f} uA
BCM4A Current: {P.BCM4A.scalerCharge/P.1MHz.scalerTime:%.3f} uA
-BCM4B Current: {P.BCM4B.scalerCharge/P.1MHz.scalerTime:%.3f} uA
-BCM4C Current: {P.BCM4C.scalerCharge/P.1MHz.scalerTime:%.3f} uA
-Unser Current: {P.Unser.scalerCharge/P.1MHz.scalerTime:%.3f} uA
+BCM4B Current: {P.BCM4B.scalerCharge/P.1MHz.scalerTime:%.3f} uA
+BCM4C Current: {P.BCM4C.scalerCharge/P.1MHz.scalerTime:%.3f} uA
+Unser Current: {P.Unser.scalerCharge/P.1MHz.scalerTime:%.3f} uA
BCM1 Charge: {P.BCM1.scalerCharge:%.3f} uC
-BCM2 Charge: {P.BCM2.scalerCharge:%.3f} uC
-BCM4A Charge: {P.BCM4A.scalerCharge:%.3f} uC
-BCM4B Charge: {P.BCM4B.scalerCharge:%.3f} uC
-BCM4C Charge: {P.BCM4C.scalerCharge:%.3f} uC
+BCM2 Charge: {P.BCM2.scalerCharge:%.3f} uC
+BCM4A Charge: {P.BCM4A.scalerCharge:%.3f} uC
+BCM4B Charge: {P.BCM4B.scalerCharge:%.3f} uC
+BCM4C Charge: {P.BCM4C.scalerCharge:%.3f} uC
Unser Charge: {P.Unser.scalerCharge:%.3f} uC
Cut on BCM{gBCM_Current_threshold_index+1} current of {gBCM_Current_threshold} uA. Beam over threshold for {P.1MHz.scalerTimeCut:%.3f}s, or {((P.1MHz.scalerTimeCut/P.1MHz.scalerTime)*100.):%.3f}% of total run time.
-BCM1 Beam Cut Current: {P.BCM1.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
-BCM2 Beam Cut Current: {P.BCM2.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
-BCM4A Beam Cut Current: {P.BCM4A.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
-BCM4B Beam Cut Current: {P.BCM4B.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
-BCM4C Beam Cut Current: {P.BCM4C.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
-Unser Beam Cut Current: {P.Unser.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
+BCM1 Beam Cut Current: {P.BCM1.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
+BCM2 Beam Cut Current: {P.BCM2.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
+BCM4A Beam Cut Current: {P.BCM4A.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
+BCM4B Beam Cut Current: {P.BCM4B.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
+BCM4C Beam Cut Current: {P.BCM4C.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
+Unser Beam Cut Current: {P.Unser.scalerChargeCut/P.1MHz.scalerTimeCut:%.3f} uA
BCM1 Beam Cut Charge: {P.BCM1.scalerChargeCut:%.3f} uC
BCM2 Beam Cut Charge: {P.BCM2.scalerChargeCut:%.3f} uC
-BCM4A Beam Cut Charge: {P.BCM4A.scalerChargeCut:%.3f} uC
-BCM4B Beam Cut Charge: {P.BCM4B.scalerChargeCut:%.3f} uC
-BCM4C Beam Cut Charge: {P.BCM4C.scalerChargeCut:%.3f} uC
+BCM4A Beam Cut Charge: {P.BCM4A.scalerChargeCut:%.3f} uC
+BCM4B Beam Cut Charge: {P.BCM4B.scalerChargeCut:%.3f} uC
+BCM4C Beam Cut Charge: {P.BCM4C.scalerChargeCut:%.3f} uC
Unser Beam Cut Charge: {P.Unser.scalerChargeCut:%.3f} uC
********************
@@ -52,11 +52,11 @@ Ps4_factor = {gpconfig_ti_ps_factors[3]}
Ps5_factor = {gpconfig_ti_ps_factors[4]}
Ps6_factor = {gpconfig_ti_ps_factors[5]}
-***********
-* Triggers
+***********
+* Triggers
***********
-=:=:=:=:=:=:=:
+=:=:=:=:=:=:=:
= 3/4 Trigger
=:=:=:=:=:=:=:
@@ -75,9 +75,9 @@ Physics 3/4 Triggers (current cut): {(P.pTRIG1.scalerCut - P.EDTM.scalerCut)}
Physics 3/4 Trigger Rate : {(P.pTRIG1.scalerCut- P.EDTM.scalerCut)/P.1MHz.scalerTimeCut/1000.:%.3f} kHz
Accepted Physics Triggers : {pcut_physics_accepted.npassed}
-=:=:=:=:=:=:=:=:
+=:=:=:=:=:=:=:=:
= HMS Triggers
-=:=:=:=:=:=:=:=:
+=:=:=:=:=:=:=:=:
hEL_LO_LO : {P.hEL_LO_LO.scalerCut} [ {(P.hEL_LO_LO.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
hEL_LO : {P.hEL_LO.scalerCut} [ {(P.hEL_LO.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
@@ -93,9 +93,9 @@ hTRIG4 : {P.hTRIG4.scalerCut} [ {(P.hTRIG4.scalerCut/P.1MHz.scalerTimeCut)/100
hTRIG5 : {P.hTRIG5.scalerCut} [ {(P.hTRIG5.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
hTRIG6 : {P.hTRIG6.scalerCut} [ {(P.hTRIG6.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
-=:=:=:=:=:=:=:=:
+=:=:=:=:=:=:=:=:
= SHMS Triggers
-=:=:=:=:=:=:=:=:
+=:=:=:=:=:=:=:=:
pEL_LO_LO : {P.pEL_LO_LO.scalerCut} [ {(P.pEL_LO_LO.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
pEL_LO : {P.pEL_LO.scalerCut} [ {(P.pEL_LO.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
@@ -131,8 +131,8 @@ SHMS TRIG1 Computer Live Time : {(shms_trigs.npassed / (P.pTRIG1.scaler/gpconfig
SHMS TRIG2 Computer Live Time : {(shms_trigs.npassed / (P.pTRIG2.scaler/gpconfig_ti_ps_factors[1]))*100.0:%3.2f} %
SHMS TRIG3 Computer Live Time : {(shms_trigs.npassed / (P.pTRIG3.scaler/gpconfig_ti_ps_factors[2]))*100.0:%3.2f} %
-SHMS Computer Live Time : {(pcut_TRIG1.npassed / P.pTRIG1.scaler)*100.0:%3.4f} %
-SHMS Computer Dead Time : {100.0 - (pcut_TRIG1.npassed / P.pTRIG1.scaler)*100.0:%3.4f} %
+SHMS Computer Live Time : {(pcut_TRIG1.npassed / P.pTRIG1.scaler)*100.0:%3.4f} %
+SHMS Computer Dead Time : {100.0 - (pcut_TRIG1.npassed / P.pTRIG1.scaler)*100.0:%3.4f} %
Pre-Scaled Ps1 SHMS Computer Live Time : {((pcut_TRIG1.npassed-pcut_TRIG5.npassed) / (P.pTRIG1.scaler/gpconfig_ti_ps_factors[0]))*100.0:%3.4f} %
Pre-Scaled Ps1 SHMS Computer Dead Time : {100.0 - ( (pcut_TRIG1.npassed-pcut_TRIG5.npassed) / (P.pTRIG1.scaler/gpconfig_ti_ps_factors[0]))*100.0:%3.4f} %
@@ -176,13 +176,13 @@ EL-CLEAN Pre-Trigger 50 ns Gate : {P.pTRIG3.scalerCut/P.1MHz.scalerTimeCut/1000
= Hodoscopes
=:=:=:=:=:=:=:
-P1X : {P.S1X.scalerCut} [ {(P.S1X.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between + and - sides of P1X
+P1X : {P.S1X.scalerCut} [ {(P.S1X.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between + and - sides of P1X
P1Y : {P.S1Y.scalerCut} [ {(P.S1Y.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between + and - sides of P1Y
P2X : {P.S2X.scalerCut} [ {(P.S2X.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between + and - sides of P2X
P2Y : {P.S2Y.scalerCut} [ {(P.S2Y.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between + and - sides of P2Y
-P1XP1Y : {P.S1XS1Y.scalerCut} [ {(P.S1XS1Y.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between P1X and P1Y planes
-P2XP2Y : {P.S2XS2Y.scalerCut} [ {(P.S2XS2Y.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between P2X and P2Y planes
+P1XP1Y : {P.S1XS1Y.scalerCut} [ {(P.S1XS1Y.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between P1X and P1Y planes
+P2XP2Y : {P.S2XS2Y.scalerCut} [ {(P.S2XS2Y.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ] AND between P2X and P2Y planes
=:=:=:=:=:=:=:=:=:=:=:=:=
= Aerogel, HGC, NGC, CAL
=:=:=:=:=:=:=:=:=:=:=:=:=
@@ -194,40 +194,40 @@ PRLO : {P.PRLO.scalerCut} [ {(P.PRLO.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f}
PRHI : {P.PRHI.scalerCut} [ {(P.PRHI.scalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
***********
-* Chambers
+* Chambers
***********
-pcut_good_S1_time Counts: {pcut_good_S1_time.npassed} / shms_trigs.scaler : {pcut_good_S1_time.npassed / shms_trigs.npassed}
-pcut_good_S2X_time Counts: {pcut_good_S2X_time.npassed} / shms_trigs.scaler : {pcut_good_S2X_time.npassed / shms_trigs.npassed}
+pcut_good_S1_time Counts: {pcut_good_S1_time.npassed} / shms_trigs.scaler : {pcut_good_S1_time.npassed / shms_trigs.npassed}
+pcut_good_S2X_time Counts: {pcut_good_S2X_time.npassed} / shms_trigs.scaler : {pcut_good_S2X_time.npassed / shms_trigs.npassed}
pcut_good_S1_S2X_time Counts: {pcut_good_S1_S2X_time.npassed} / shms_trigs.scaler : {pcut_good_S1_S2X_time.npassed / shms_trigs.npassed}
-Chamber 1 hits > 0 Counts: {shms_ch1_gt0.npassed} / shms_trigs : {shms_ch1_gt0.npassed / shms_trigs.npassed}
-Chamber 2 hits > 0 Counts: {shms_ch2_gt0.npassed} / shms_trigs : { shms_ch2_gt0.npassed / shms_trigs.npassed}
-Chamber 2 hits > 0 & Ch 1 hits = 0 Counts: {shms_ch2_gt0_noch1.npassed} / shms_trigs : { shms_ch2_gt0_noch1.npassed / shms_trigs.npassed}
-Chamber 1 hits > 0 & Ch 2 hits = 0 Counts: {shms_ch1_gt0_noch2.npassed} / shms_trigs : {shms_ch1_gt0_noch2.npassed / shms_trigs.npassed}
-Chamber 1 hits = 0 & Ch 2 hits = 0 Counts: {shms_noch1_noch2.npassed} / shms_trigs : {shms_noch1_noch2.npassed / shms_trigs.npassed}
-Chamber 1 > 0 & Ch 2 hits > 0 Counts: {shms_ch_gt0.npassed} / shms_trigs : { shms_ch_gt0.npassed / shms_trigs.npassed}
+Chamber 1 hits > 0 Counts: {shms_ch1_gt0.npassed} / shms_trigs : {shms_ch1_gt0.npassed / shms_trigs.npassed}
+Chamber 2 hits > 0 Counts: {shms_ch2_gt0.npassed} / shms_trigs : { shms_ch2_gt0.npassed / shms_trigs.npassed}
+Chamber 2 hits > 0 & Ch 1 hits = 0 Counts: {shms_ch2_gt0_noch1.npassed} / shms_trigs : { shms_ch2_gt0_noch1.npassed / shms_trigs.npassed}
+Chamber 1 hits > 0 & Ch 2 hits = 0 Counts: {shms_ch1_gt0_noch2.npassed} / shms_trigs : {shms_ch1_gt0_noch2.npassed / shms_trigs.npassed}
+Chamber 1 hits = 0 & Ch 2 hits = 0 Counts: {shms_noch1_noch2.npassed} / shms_trigs : {shms_noch1_noch2.npassed / shms_trigs.npassed}
+Chamber 1 > 0 & Ch 2 hits > 0 Counts: {shms_ch_gt0.npassed} / shms_trigs : { shms_ch_gt0.npassed / shms_trigs.npassed}
Ch 1 hits > 0 & Ch 2 hits > 0 & track Counts: {shms_ch_gt0_track.npassed} / shms_trigs : { shms_ch_gt0_track.npassed / shms_trigs.npassed}
-Chamber 1 > 3 & Ch 2 hits > 3 Counts: {shms_ch_gt4.npassed} / shms_trigs : { shms_ch_gt4.npassed / shms_trigs.npassed}
+Chamber 1 > 3 & Ch 2 hits > 3 Counts: {shms_ch_gt4.npassed} / shms_trigs : { shms_ch_gt4.npassed / shms_trigs.npassed}
Ch 1 hits > 3 & Ch 2 hits > 3 & track Counts: {shms_ch_gt4_track.npassed} / shms_trigs : { shms_ch_gt4_track.npassed / shms_trigs.npassed}
-Add cut on good_S1_S2X_time
+Add cut on good_S1_S2X_time
-Chamber 1 hits > 0 Counts: {shms_ch1_gt0_gtime.npassed} / shms_trigs.scaler : {shms_ch1_gt0_gtime.npassed / shms_trigs.npassed}
-Chamber 2 hits > 0 Counts: {shms_ch2_gt0_gtime.npassed} / shms_trigs.scaler : { shms_ch2_gt0_gtime.npassed / shms_trigs.npassed}
-Chamber 2 hits > 0 & Ch 1 hits = 0 Counts: {shms_ch2_gt0_noch1_gtime.npassed} / shms_trigs.scaler : { shms_ch2_gt0_noch1_gtime.npassed / shms_trigs.npassed}
-Chamber 1 hits > 0 & Ch 2 hits = 0 Counts: {shms_ch1_gt0_noch2_gtime.npassed} / shms_trigs.scaler : {shms_ch1_gt0_noch2_gtime.npassed / shms_trigs.npassed}
-Chamber 1 hits = 0 & Ch 2 hits = 0 Counts: {shms_noch1_noch2_gtime.npassed} / shms_trigs.scaler : {shms_noch1_noch2_gtime.npassed / shms_trigs.npassed}
-Chamber 1 > 0 & Ch 2 hits > 0 Counts: {shms_ch_gt0_gtime.npassed} / shms_trigs.scaler : { shms_ch_gt0_gtime.npassed / shms_trigs.npassed}
+Chamber 1 hits > 0 Counts: {shms_ch1_gt0_gtime.npassed} / shms_trigs.scaler : {shms_ch1_gt0_gtime.npassed / shms_trigs.npassed}
+Chamber 2 hits > 0 Counts: {shms_ch2_gt0_gtime.npassed} / shms_trigs.scaler : { shms_ch2_gt0_gtime.npassed / shms_trigs.npassed}
+Chamber 2 hits > 0 & Ch 1 hits = 0 Counts: {shms_ch2_gt0_noch1_gtime.npassed} / shms_trigs.scaler : { shms_ch2_gt0_noch1_gtime.npassed / shms_trigs.npassed}
+Chamber 1 hits > 0 & Ch 2 hits = 0 Counts: {shms_ch1_gt0_noch2_gtime.npassed} / shms_trigs.scaler : {shms_ch1_gt0_noch2_gtime.npassed / shms_trigs.npassed}
+Chamber 1 hits = 0 & Ch 2 hits = 0 Counts: {shms_noch1_noch2_gtime.npassed} / shms_trigs.scaler : {shms_noch1_noch2_gtime.npassed / shms_trigs.npassed}
+Chamber 1 > 0 & Ch 2 hits > 0 Counts: {shms_ch_gt0_gtime.npassed} / shms_trigs.scaler : { shms_ch_gt0_gtime.npassed / shms_trigs.npassed}
Ch 1 hits > 0 & Ch 2 hits > 0 & track Counts: {shms_ch_gt0_track_gtime.npassed} / shms_trigs.scaler : { shms_ch_gt0_track_gtime.npassed / shms_trigs.npassed}
-Chamber 1 > 3 & Ch 2 hits > 3 Counts: {shms_ch_gt4_gtime.npassed} / shms_trigs.scaler : { shms_ch_gt4_gtime.npassed / shms_trigs.npassed}
+Chamber 1 > 3 & Ch 2 hits > 3 Counts: {shms_ch_gt4_gtime.npassed} / shms_trigs.scaler : { shms_ch_gt4_gtime.npassed / shms_trigs.npassed}
Ch 1 hits > 3 & Ch 2 hits > 3 & track Counts: {shms_ch_gt4_track_gtime.npassed} / shms_trigs.scaler : { shms_ch_gt4_track_gtime.npassed / shms_trigs.npassed}
shmsDC1Planes_large Counts: {shmsDC1Planes_large.npassed} / shms_trigs.scaler : {shmsDC1Planes_large.npassed / shms_trigs.npassed}
-shmsDC2Planes_large Counts: {shmsDC2Planes_large.npassed} / shms_trigs.scaler : {shmsDC2Planes_large.npassed / shms_trigs.npassed}
+shmsDC2Planes_large Counts: {shmsDC2Planes_large.npassed} / shms_trigs.scaler : {shmsDC2Planes_large.npassed / shms_trigs.npassed}
shmsDC1Planes6 Counts: {shmsDC1Planes6hits.npassed} / shms_trigs.scaler : {shmsDC1Planes6hits.npassed / shms_trigs.npassed}
-shmsDC2Planes6 Counts: {shmsDC2Planes6hits.npassed} / shms_trigs.scaler : {shmsDC2Planes6hits.npassed / shms_trigs.npassed}
+shmsDC2Planes6 Counts: {shmsDC2Planes6hits.npassed} / shms_trigs.scaler : {shmsDC2Planes6hits.npassed / shms_trigs.npassed}
shmsDC1x1Planes5 Counts: {shmsDC1_5hits_x1.npassed} eff : {shmsDC1_6hits_x1.npassed / shmsDC1_5hits_x1.npassed}
shmsDC1u1Planes5 Counts: {shmsDC1_5hits_u1.npassed} eff : {shmsDC1_6hits_u1.npassed / shmsDC1_5hits_u1.npassed}
@@ -244,19 +244,19 @@ shmsDC2v2Planes5 Counts: {shmsDC2_5hits_v2.npassed} eff : {shmsDC2_6hits_v2.
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}
-shmsDC1_1hit_u1: {shmsDC1_1hit_u1.npassed}
-shmsDC1_1hit_u2: {shmsDC1_1hit_u2.npassed}
-shmsDC1_1hit_v1: {shmsDC1_1hit_v1.npassed}
-shmsDC1_1hit_v2: {shmsDC1_1hit_v2.npassed}
-shmsDC1_1hit_x2: {shmsDC1_1hit_x2.npassed}
-
-shmsDC2_1hit_x1: {shmsDC2_1hit_x1.npassed}
-shmsDC2_1hit_u1: {shmsDC2_1hit_u1.npassed}
-shmsDC2_1hit_u2: {shmsDC2_1hit_u2.npassed}
-shmsDC2_1hit_v1: {shmsDC2_1hit_v1.npassed}
-shmsDC2_1hit_v2: {shmsDC2_1hit_v2.npassed}
-shmsDC2_1hit_x2: {shmsDC2_1hit_x2.npassed}
+shmsDC1_1hit_x1: {shmsDC1_1hit_x1.npassed}
+shmsDC1_1hit_u1: {shmsDC1_1hit_u1.npassed}
+shmsDC1_1hit_u2: {shmsDC1_1hit_u2.npassed}
+shmsDC1_1hit_v1: {shmsDC1_1hit_v1.npassed}
+shmsDC1_1hit_v2: {shmsDC1_1hit_v2.npassed}
+shmsDC1_1hit_x2: {shmsDC1_1hit_x2.npassed}
+
+shmsDC2_1hit_x1: {shmsDC2_1hit_x1.npassed}
+shmsDC2_1hit_u1: {shmsDC2_1hit_u1.npassed}
+shmsDC2_1hit_u2: {shmsDC2_1hit_u2.npassed}
+shmsDC2_1hit_v1: {shmsDC2_1hit_v1.npassed}
+shmsDC2_1hit_v2: {shmsDC2_1hit_v2.npassed}
+shmsDC2_1hit_x2: {shmsDC2_1hit_x2.npassed}
"Good" means one or two hits per dc plane.
pcut_goodHDC1x1: {pcut_goodHDC1x1.npassed} eff : {pcut_goodHDC1x1.npassed/(shms_trigs.npassed+.0001):%5.3f}
@@ -290,13 +290,13 @@ pcut_realhdc2u1: {pcut_realhdc2u1.npassed}
pcut_realhdc2v1: {pcut_realhdc2v1.npassed}
pcut_realhdc2v2: {pcut_realhdc2v2.npassed}
pcut_realhdc2x2: {pcut_realhdc2x2.npassed}
-
+
**HODOSCOPE**
"Any" means one or more hits per scint plane.
pcut_anys1x : {pcut_anys1x.npassed} eff: {pcut_anys1x.npassed/(shms_trigs.npassed+.0001):%5.3f} BAD = ??
pcut_anys1y : {pcut_anys1y.npassed} eff: {pcut_anys1y.npassed/(shms_trigs.npassed+.0001):%5.3f}
pcut_anys2x : {pcut_anys2x.npassed} eff: {pcut_anys2x.npassed/(shms_trigs.npassed+.0001):%5.3f}
-pcut_anys2y : {pcut_anys2y.npassed} eff: {pcut_anys2y.npassed/(shms_trigs.npassed+.0001):%5.3f}
+pcut_anys2y : {pcut_anys2y.npassed} eff: {pcut_anys2y.npassed/(shms_trigs.npassed+.0001):%5.3f}
"Good" means one or two hits per scint plane.
pcut_goods1x : {pcut_goods1x.npassed} eff: {pcut_goods1x.npassed/(shms_trigs.npassed+.0001):%5.3f} BAD = ??
@@ -309,13 +309,13 @@ pcut_goods1s2: {pcut_goods1s2.npassed} eff: {pcut_goods1s2.npassed/(shms_trigs
**TRACKING**
pcut_FoundTrack :{pcut_FoundTrack.npassed} eff: {pcut_FoundTrack.npassed/(shms_trigs.npassed+.0001):%5.3f} BAD = ??
-pcut_Found1Track :{pcut_Found1Track.npassed} eff: {pcut_Found1Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
-pcut_Found2Track :{pcut_Found2Track.npassed} eff: {pcut_Found2Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
-pcut_Found3Track :{pcut_Found3Track.npassed} eff: {pcut_Found3Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
-pcut_Found4Track :{pcut_Found4Track.npassed} eff: {pcut_Found4Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
+pcut_Found1Track :{pcut_Found1Track.npassed} eff: {pcut_Found1Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
+pcut_Found2Track :{pcut_Found2Track.npassed} eff: {pcut_Found2Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
+pcut_Found3Track :{pcut_Found3Track.npassed} eff: {pcut_Found3Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
+pcut_Found4Track :{pcut_Found4Track.npassed} eff: {pcut_Found4Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
pcut_CleanTrack :{pcut_CleanTrack.npassed} eff: {pcut_CleanTrack.npassed/(shms_trigs.npassed+.0001):%5.3f} BAD = ??
-pcut_Clean1Track:{pcut_Clean1Track.npassed} eff: {pcut_Clean1Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
+pcut_Clean1Track:{pcut_Clean1Track.npassed} eff: {pcut_Clean1Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
pcut_Clean2Track:{pcut_Clean2Track.npassed} eff: {pcut_Clean2Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
pcut_Clean3Track:{pcut_Clean3Track.npassed} eff: {pcut_Clean3Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
pcut_Clean4Track:{pcut_Clean4Track.npassed} eff: {pcut_Clean4Track.npassed/(shms_trigs.npassed+.0001):%5.3f}
@@ -330,11 +330,11 @@ pcut_cer_elec_both : {pcut_cer_elec_both.npassed}
pcut_cal_elec : {pcut_cal_elec.npassed}
pcut_cal_pi : {pcut_cal_pi.npassed}
pcut_elec_all : {pcut_elec_all.npassed}
-pcut_pi_all : {pcut_pi_all.npassed}
+pcut_pi_all : {pcut_pi_all.npassed}
-pcut_CleanTrack_cer_elec : {pcut_CleanTrack_cer_elec.npassed}
+pcut_CleanTrack_cer_elec : {pcut_CleanTrack_cer_elec.npassed}
pcut_p1hit1_cer_elec : {pcut_p1hit1_cer_elec.npassed}
-pcut_CleanTrack_cal_elec : {pcut_CleanTrack_cal_elec.npassed}
+pcut_CleanTrack_cal_elec : {pcut_CleanTrack_cal_elec.npassed}
pcut_p1hit1_cal_elec : {pcut_p1hit1_cal_elec.npassed}
******************************
@@ -369,7 +369,7 @@ E SING FID TRACK EFFIC : {shmsScinDide.npassed / (shmsScinShoulde.npasse
HADRON SING FID TRACK EFFIC : {shmsScinDidh.npassed / (shmsScinShouldh.npassed+0.0001):%8.4f} +- {(sqrt(shmsScinShouldh.npassed-shmsScinDidh.npassed) / (shmsScinShouldh.npassed+.0001)):%8.4f}
***************
-* HGC Cerenkov
+* HGC Cerenkov
***************
Good Track Requirements:
@@ -386,7 +386,7 @@ SHMS HGC Region 4 efficiency: {SHMS_hgcer_track_fired_region_4.npassed/SHMS_hgce
Overall HGC Efficiency: {SHMS_hgcer_track_fired_tot.npassed/SHMS_hgcer_track_matched_tot.npassed} = {SHMS_hgcer_track_fired_tot.npassed} of {SHMS_hgcer_track_matched_tot.npassed} good tracks.
***************
-* NGC Cerenkov
+* NGC Cerenkov
***************
Good Track Requirements:
@@ -403,15 +403,15 @@ SHMS NGC Region 4 efficiency: {SHMS_ngcer_track_fired_region_4.npassed/SHMS_ngce
Overall NGC Efficiency: {SHMS_ngcer_track_fired_tot.npassed/SHMS_ngcer_track_matched_tot.npassed} = {SHMS_ngcer_track_fired_tot.npassed} of {SHMS_ngcer_track_matched_tot.npassed} good tracks.
**********
-* Aerogel
+* Aerogel
**********
Good Track Requirements:
- 1. Only one track found in the focal plane
+ 1. Only one track found in the focal plane
2. chisq/dof < {paero_red_chi2_max:%5.1f}
3. {paero_beta_min:%5.3f} < beta < {paero_beta_max:%5.3f}
4. {paero_enorm_min:%5.3f} < calorimeter energy < {paero_enorm_max:%5.3f}
- 5. {paero_dp_min:%5.3f} < delta p (dp) < {paero_dp_max:%5.3f} //added because paero_cuts.param has this as a cut
+ 5. {paero_dp_min:%5.3f} < delta p (dp) < {paero_dp_max:%5.3f} //added because paero_cuts.param has this as a cut
Threshold set at {paero_npe_thresh:%4.1f}
*AEROGEL EFF* 7 PMT pairs
SHMS AERO Region 1 efficiency: {SHMS_aero_track_fired_region_1.npassed/SHMS_aero_track_matched_region_1.npassed} = {SHMS_aero_track_fired_region_1.npassed} of {SHMS_aero_track_matched_region_1.npassed} good tracks.
@@ -439,7 +439,7 @@ shmsPreShower Counts: {P.cal.stat_trksum1} eff : {P.cal.stat_hitsum1 / P.ca
shmsShowerArray Counts: {P.cal.stat_trksum_array} eff : {P.cal.stat_hitsum_array / P.cal.stat_trksum_array}
**************************
-* Hodoscope Efficiencies *
+* Hodoscope Efficiencies *
**************************
Efficiencies for hodoscopes is the fraction of times scin. was hit when track
@@ -548,7 +548,7 @@ P1X7+: {P.hod.1x7.posScalerCut} [ {(P.hod.1x7.posScalerCut/P.1MHz.scalerTimeCut
P1X8+: {P.hod.1x8.posScalerCut} [ {(P.hod.1x8.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P1X9+: {P.hod.1x9.posScalerCut} [ {(P.hod.1x9.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P1X10+: {P.hod.1x10.posScalerCut} [ {(P.hod.1x10.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
-P1X11+: {P.hod.1x11.posScalerCut} [ {(P.hod.1x11.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
+P1X11+: {P.hod.1x11.posScalerCut} [ {(P.hod.1x11.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P1X12+: {P.hod.1x12.posScalerCut} [ {(P.hod.1x12.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P1X13+: {P.hod.1x13.posScalerCut} [ {(P.hod.1x13.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
@@ -565,7 +565,7 @@ P1X10-: {P.hod.1x10.negScalerCut} [ {(P.hod.1x10.negScalerCut/P.1MHz.scalerTimeC
P1X11-: {P.hod.1x11.negScalerCut} [ {(P.hod.1x11.negScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P1X12-: {P.hod.1x12.negScalerCut} [ {(P.hod.1x12.negScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P1X13-: {P.hod.1x13.negScalerCut} [ {(P.hod.1x13.negScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
-
+
P1Y1+: {P.hod.1y1.posScalerCut} [ {(P.hod.1y1.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P1Y2+: {P.hod.1y2.posScalerCut} [ {(P.hod.1y2.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P1Y3+: {P.hod.1y3.posScalerCut} [ {(P.hod.1y3.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
@@ -626,7 +626,7 @@ P2X14-: {P.hod.2x14.negScalerCut} [ {(P.hod.2x14.negScalerCut/P.1MHz.scalerTimeC
P2Y1+: {P.hod.2y1.posScalerCut} [ {(P.hod.2y1.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P2Y2+: {P.hod.2y2.posScalerCut} [ {(P.hod.2y2.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
-P2Y3+: {P.hod.2y3.posScalerCut} [ {(P.hod.2y3.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
+P2Y3+: {P.hod.2y3.posScalerCut} [ {(P.hod.2y3.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P2Y4+: {P.hod.2y4.posScalerCut} [ {(P.hod.2y4.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P2Y5+: {P.hod.2y5.posScalerCut} [ {(P.hod.2y5.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P2Y6+: {P.hod.2y6.posScalerCut} [ {(P.hod.2y6.posScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
@@ -666,4 +666,15 @@ P2Y17-: {P.hod.2y17.negScalerCut} [ {(P.hod.2y17.negScalerCut/P.1MHz.scalerTimeC
P2Y18-: {P.hod.2y18.negScalerCut} [ {(P.hod.2y18.negScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P2Y19-: {P.hod.2y19.negScalerCut} [ {(P.hod.2y19.negScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
P2Y20-: {P.hod.2y20.negScalerCut} [ {(P.hod.2y20.negScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
-P2Y21-: {P.hod.2y21.negScalerCut} [ {(P.hod.2y21.negScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
\ No newline at end of file
+P2Y21-: {P.hod.2y21.negScalerCut} [ {(P.hod.2y21.negScalerCut/P.1MHz.scalerTimeCut)/1000.:%.3f} kHz ]
+
+Scalers Gated Charge Charge Asymmetry
+BCM1: {gP_hscaler_charge[0]:%12.2f} {gP_hscaler_charge_asy[0]*1e6:%12.2f}
+BCM2: {gP_hscaler_charge[1]:%12.2f} {gP_hscaler_charge_asy[1]*1e6:%12.2f}
+BCM4A: {gP_hscaler_charge[3]:%12.2f} {gP_hscaler_charge_asy[3]*1e6:%12.2f}
+BCM4B: {gP_hscaler_charge[4]:%12.2f} {gP_hscaler_charge_asy[4]*1e6:%12.2f}
+BCM4C: {gP_hscaler_charge[5]:%12.2f} {gP_hscaler_charge_asy[5]*1e6:%12.2f}
+Unser: {gP_hscaler_charge[2]:%12.2f} {gP_hscaler_charge_asy[2]*1e6:%12.2f}
+Time(s): {gP_hscaler_time:%12.2f} {gP_hscaler_time_asy*1e6:%12.2f}
+Gates: {(gP_hscaler_triggers_plus+gP_hscaler_triggers_minus):%12.2f} {gP_hscaler_trigger_asy*1e6:%12.2f}
+