hist.def

# Created by /home/g01/daq/bin/hm on aino-1, 21:13:25 17-Oct-2015 
  1  com   Definition of Parameters
  2. com   Constants
  3  def   FALSE = 0
  3  def   TRUE = 1
  3  def   pi = 3.14159265358979323846
  3  def   d2r = pi/180
  3  def   r2d = 180/pi
  3  def   cos45 = 0.70710678118654752440
  3  def   sin45 = 0.70710678118654752440
  3  com   Velocity of light in vaccuum = 299792458 [m/s] (exact)
  4  def   c = 2.99792458e+8
  3  com   Fine structure constant = 1/137.0359895(61)
  4  def   alpha = 1/137.0359895
  3  com   Atomic mass unit = 931.49432(28) [MeV/c2]
  4  def   AMU = 931.49432
  3  com   Electron charge = 1.60217733(49)e-19 [C]
  4  def   e = 1.60217733e-19
  3  com   hbarc = 197.327053(59) [MeVfm]
  4  def   hbc = 197.327053
  3  com   Electron mass = 0.51099907(15) [MeV/c2]
  4  def   M_e = 0.51099907
  3  com   Proton mass = 938.27231(28) [MeV/c2]
  4  def   M_p = 938.27231
  3  com   Neutron mass = 939.56563(28) [MeV/c2]
  4  def   M_n = 939.56563
  3  com   Deuteron mass = 1875.61339(57) [MeV/c2]
  4  def   M_d = 1875.61339
  3. com   Nuclear masses [MeV/c2]
  4  def   M_3He = 2808.392
  4  def   M_4He = 3728.4
  4  def   M_10B = 10*AMU+12.0508-5*M_e
  4  def   M_10B = 10*AMU+12.0508-5*M_e
  4  def   M_11B = 11*AMU+8.6680-5*M_e
  4  def   M_12C = 12*AMU+0.000-6*M_e
  4  def   M_12N = 12*AMU+17.3381-7*M_e
  4  def   M_24Mg = 24*AMU-13.933-12*M_e
  4  def   M_26Mg = 26*AMU-16.214-14*M_e
  4  def   M_28Si = 28*AMU-21.49283-14*M_e
  4  def   M_40Ca = 40*AMU-34.846-20*M_e
  4  def   M_48Ca = 48*AMU-44.215-20*M_e
  4  def   M_58Ni = 58*AMU-60.2230-28*M_e
  4  def   M_90Zr = 90*AMU-86.4457-40*M_e
  4  def   M_90Y = 90*AMU-86.4807-39*M_e
  4  def   M_90Y = 197*AMU-31.157-79*M_e
  4  def   M_197Au = 197*AMU-31.157-79*M_e
  4  def   M_208Pb = 208*AMU-21.764-82*M_e
  3. com   Debug Variables
 -4  def   DEBUG_DUMP_VARIABLES = 1
 -4  def   DEBUG_DUMP_DEBUG = 1
  4  def   DEBUG_DUMP_SHOW_NONE = 1
 -4  def   DEBUG = GR_ADC
 -4  def   DEBUG_GR_N_OUTPUTRAY = 200
 -4  def   DEBUG_LAS_N_OUTPUTRAY = 1000
  2  com   Analysis Parameters
  3. com   Analyzing System
 -4. com   Blocks (ANA_BLK_START <= BLOCK_N <= ANA_BLK_END)
  5  def   ANA_BLK_START = 23000
  5  def   ANA_BLK_END = 24000
 -4. com   Blocks (ANA_BLK_START <= BLOCK_N <= ANA_BLK_END)
  5  def   ANA_BLK_START = 24000
  5  def   ANA_BLK_END = 25000
 -4. com   Blocks (ANA_BLK_START <= BLOCK_N <= ANA_BLK_END)
  5  def   ANA_BLK_START = 34000
  5  def   ANA_BLK_END = 35000
 -4. com   Blocks (ANA_BLK_START <= BLOCK_N <= ANA_BLK_END)
  5  def   ANA_BLK_START = 10000
  5  def   ANA_BLK_END = 20000
  3. com   GR
  4  def   ANALYZE_GR = !BLP
 -4  def   ANALYZE_GR = TRUE
  4  def   ANALYZE_GR_VDC = TRUE
 -4  def   ANALYZE_GR_VDC = GR_PI && GR_RF
  4  def   ANALYZE_GR_MATRIX = TRUE
  4  com   Cluster Analysis
  5  def   GR_VDC_ANA_MULTI_CLUST = TRUE # Analyze Multi-Cluster Event
 -5  def   GR_VDC_ANA_2HIT_CLUST = TRUE
  5  def   GR_VDC_MAX_CLUST_SIZE = 10 # Default Value
  5  def   GR_VDC_MIN_CLUST_SIZE = 2 # Default Value
  5  def   GR_VDC_MAX_CHI2 = 50 # Maximum allowed chi2 when counting number of combinations
  3. com   LAS
  4  def   ANALYZE_LAS = TRUE
 -4  def   ANALYZE_LAS_VDC = TRUE
  4  def   ANALYZE_LAS_VDC = LAS_RF_G
 -4  def   ANALYZE_LAS_VDC = LAS_PI
  4  com   Cluster Analysis
  5  def   LAS_VDC_ANA_MULTI_CLUST = TRUE # Analyze Multi-Cluster Event
 -5  def   LAS_VDC_ANA_2HIT_CLUST = TRUE
  5  def   LAS_VDC_MAX_CLUST_SIZE = 10 # Default Value
  5  def   LAS_VDC_MIN_CLUST_SIZE = 2 # Default Value
  5  def   LAS_VDC_MAX_CHI2 = 50. # Maximum allowed chi2 when counting number of combinations
 -3. com   GR-FPP
  4  def   ANALYZE_GR_FPP = TRUE
 -4  def   ANALYZE_GR_FPP = GF_ANA_G
  3. com   Multi-Cluster Analysis (Method#1)
 -4. com   Set#1 (see Analysis book pp.33)
  5  def   GF_ANA_MULTI_CLUST = TRUE # Analyze Multi-Cluster Event
  5  def   GF_V_POS = {1759.4, 0.0, 0.0} # Assumed vertex position plane in mm {z, theta, phi} (the center of the carbon scatterer)
  5  def   GF_MAX_CHI2 = 9 # Maximum allowed chi2 when counting number of combinations
  5  def   GF_MAX_NCOMB = 4 # Maximum allowed number of combinations in wire positions
  5  def   GF_MAX_NCLUST = 2 # Maximum allowed number of clusters in a plane
 -5  def   GF_VD_RES = 10 # Vertex distance resolution (in mm)
  5  def   GF_VX_RES = 7 # Vertex X position resolution (in mm)
  5  def   GF_VY_RES = 7 # Vertex Y position resolution (in mm)
  4  com   Set#2 (see Analysis book pp.33)
  5  def   GF_ANA_MULTI_CLUST = TRUE # Analyze Multi-Cluster Event
  5  def   GF_V_POS = {1759.4, 0.0, 0.0} # Assumed vertex position plane in mm {z, theta, phi} (the center of the carbon scatterer)
  5  def   GF_MAX_CHI2 = 9 # Maximum allowed chi2 when counting number of combinations
  5  def   GF_MAX_NCOMB = 9 # Maximum allowed number of combinations in wire positions
  5  def   GF_MAX_NCLUST = 4 # Maximum allowed number of clusters in a plane
 -5  def   GF_VD_RES = 10 # Vertex distance resolution (in mm)
  5  def   GF_VX_RES = 7 # Vertex X position resolution (in mm)
  5  def   GF_VY_RES = 7 # Vertex Y position resolution (in mm)
 -3. com   Multi-Cluster Analysis (Method#2)
  4  def   GF_ANA_MULTI_CLUST = TRUE # Analyze Multi-Cluster Event
  4  def   GF_V_POS = {1759.4, 0.0, 0.0} # Assumed vertex position plane in mm {z, theta, phi} (the center of the carbon scatterer)
 -3. com   Scaler Output
 -4  def   PRINT_SCALER = TRUE
 -4  def   PRINT_SCALER = FALSE
  4  def   PRINT_SCALER = EVENT_BEND && BLOCK_N[0]%100==0
  3. com   DST Output
  4  def   DST_CONDITION = 1 # No Condition
  4. com   DST Step #2 (VDC-Ray-Analyzed, GR data)
  5  def   DST_VAR = "QTC_TRAILING_CH:QTC_TRAILING_TDC:QTC_LEADING_CH:QTC_LEADING_TDC:GR_RAYID:GR_RF:GR_X:GR_Y:GR_TH:GR_PH:GR_ADC1:GR_ADC2:GR_ADC3:GR_ADC4:GR_ADC5:GR_ADC6:GR_TDC1:GR_TDC2:GR_TDC3:GR_TDC4:GR_TDC5:GR_TDC6:GR_TPOS1:GR_TPOS2:GR_MADC1:GR_MADC2:GR_MADC3:GR_WIRE_X1:GR_WIRE_U1:GR_WIRE_X2:GR_WIRE_U2:GR_WTDC_X1:GR_WTDC_U1:GR_WTDC_X2:GR_WTDC_U2:GR_TDCR_X1:GR_TDCR_U1:GR_TDCR_X2:GR_TDCR_U2:LAS_RAYID:LAS_RF1:LAS_RF2:LAS_RF3:LAS_X:LAS_Y:LAS_TH:LAS_PH:LAS_ADC1:LAS_ADC2:LAS_ADC3:LAS_ADC4:LAS_ADC5:LAS_ADC6:LAS_ADC7:LAS_ADC8:LAS_ADC9:LAS_ADC10:LAS_ADC11:LAS_ADC12:LAS_TDC1:LAS_TDC2:LAS_TDC3:LAS_TDC4:LAS_TDC5:LAS_TDC6:LAS_TDC7:LAS_TDC8:LAS_TDC9:LAS_TDC10:LAS_TDC11:LAS_TDC12:LAS_TPOS1:LAS_TPOS2:LAS_TPOS3:LAS_TPOS4:LAS_TPOS5:LAS_TPOS6:LAS_MADC1:LAS_MADC2:LAS_MADC3:LAS_MADC4:LAS_MADC5:LAS_MADC6:LAS_WIRE_X1:LAS_WIRE_U1:LAS_WIRE_V1:LAS_WIRE_X2:LAS_WIRE_U2:LAS_WIRE_V2:LAS_TDCR_X1:LAS_TDCR_U1:LAS_TDCR_V1:LAS_TDCR_X2:LAS_TDCR_U2:LAS_TDCR_V2" 
#"QTC_TRAILING_CH:QTC_TRAILING_TDC:QTC_LEADING_CH:QTC_LEADING_TDC:GR_RAYID:GR_RF:GR_X:GR_Y:GR_TH:GR_PH:GR_ADC1:GR_ADC2:GR_ADC3:GR_ADC4:GR_ADC5:GR_ADC6:GR_TDC1:GR_TDC2:GR_TDC3:GR_TDC4:GR_TDC5:GR_TDC6:GR_TPOS1:GR_TPOS2:GR_MADC1:GR_MADC2:GR_MADC3:GR_WIRE_X1:GR_WIRE_U1:GR_WIRE_X2:GR_WIRE_U2:GR_WTDC_X1:GR_WTDC_U1:GR_WTDC_X2:GR_WTDC_U2:GR_TDCR_X1:GR_TDCR_U1:GR_TDCR_X2:GR_TDCR_U2:LAS_RAYID:LAS_RF1:LAS_RF2:LAS_RF3:LAS_X:LAS_Y:LAS_TH:LAS_PH:LAS_ADC1:LAS_ADC2:LAS_ADC3:LAS_ADC4:LAS_ADC5:LAS_ADC6:LAS_ADC7:LAS_ADC8:LAS_ADC9:LAS_ADC10:LAS_ADC11:LAS_ADC12:LAS_TDC1:LAS_TDC2:LAS_TDC3:LAS_TDC4:LAS_TDC5:LAS_TDC6:LAS_TDC7:LAS_TDC8:LAS_TDC9:LAS_TDC10:LAS_TDC11:LAS_TDC12:LAS_TPOS1:LAS_TPOS2:LAS_TPOS3:LAS_TPOS4:LAS_TPOS5:LAS_TPOS6:LAS_MADC1:LAS_MADC2:LAS_MADC3:LAS_MADC4:LAS_MADC5:LAS_MADC6:LAS_WIRE_X1:LAS_WIRE_U1:LAS_WIRE_V1:LAS_WIRE_X2:LAS_WIRE_U2:LAS_WIRE_V2:LAS_TDCR_X1:LAS_TDCR_U1:LAS_TDCR_V1:LAS_TDCR_X2:LAS_TDCR_U2:LAS_TDCR_V2:BLP_ADC2:BLP_ADC3:BLP_ADC4:BLP_ADC5:BLP_ADC6:BLP_ADC7:BLP_ADC8:BLP_TDC1:BLP_TDC2:BLP_TDC3:BLP_TDC4:BLP_TDC5:BLP_TDC6:BLP_TDC7:BLP_TDC8:MADC32_0_CH:MADC32_0_ADC:MADC32_1_CH:MADC32_1_ADC:MADC32_2_CH:MADC32_2_ADC:SSD_TRAI_CH:SSD_TRAI_TDC:SSD_LEAD_CH:SSD_LEAD_TDC:GR_TIMESTAMP" 
  5. com   Variables for ROOT conversion (arrays reduced to single variables)
  5  def   GR_ADC1 = GR_FERA_ADC[0x10]
  5  def   GR_ADC2 = GR_FERA_ADC[0x11]
  5  def   GR_ADC3 = GR_FERA_ADC[0x12]
  5  def   GR_ADC4 = GR_FERA_ADC[0x13]
  5  def   GR_ADC5 = GR_FERA_ADC[0x20]
  5  def   GR_ADC6 = GR_FERA_ADC[0x28]
  5  def   GR_TDC1 = GR_FERA_TDC[0x16] 
  5  def   GR_TDC2 = GR_FERA_TDC[0x11]
  5  def   GR_TDC3 = GR_FERA_TDC[0x12]
  5  def   GR_TDC4 = GR_FERA_TDC[0x13]
  5  def   GR_TDC5 = GR_FERA_TDC[0x20]
  5  def   GR_TDC6 = GR_FERA_TDC[0x28] 
  5  def   LAS_ADC1 = LAS_FERA_ADC[0x10]
  5  def   LAS_ADC2 = LAS_FERA_ADC[0x11]
  5  def   LAS_ADC3 = LAS_FERA_ADC[0x12]
  5  def   LAS_ADC4 = LAS_FERA_ADC[0x13]
  5  def   LAS_ADC5 = LAS_FERA_ADC[0x14]
  5  def   LAS_ADC6 = LAS_FERA_ADC[0x15]
  5  def   LAS_ADC7 = LAS_FERA_ADC[0x16]
  5  def   LAS_ADC8 = LAS_FERA_ADC[0x17]
  5  def   LAS_ADC9 = LAS_FERA_ADC[0x18]
  5  def   LAS_ADC10= LAS_FERA_ADC[0x19]
  5  def   LAS_ADC11= LAS_FERA_ADC[0x1a]
  5  def   LAS_ADC12= LAS_FERA_ADC[0x1b]
  5  def   LAS_TDC1 = LAS_FERA_TDC[0x10]
  5  def   LAS_TDC2 = LAS_FERA_TDC[0x12]
  5  def   LAS_TDC3 = LAS_FERA_TDC[0x14]
  5  def   LAS_TDC4 = LAS_FERA_TDC[0x16]
  5  def   LAS_TDC5 = LAS_FERA_TDC[0x18]
  5  def   LAS_TDC6 = LAS_FERA_TDC[0x1a]
  5  def   LAS_TDC7 = LAS_FERA_TDC[0x1c]
  5  def   LAS_TDC8 = LAS_FERA_TDC[0x1e]
  5  def   LAS_TDC9 = LAS_FERA_TDC[0x20]
  5  def   LAS_TDC10= LAS_FERA_TDC[0x22]
  5  def   LAS_TDC11= LAS_FERA_TDC[0x24]
  5  def   LAS_TDC12= LAS_FERA_TDC[0x26]
  5  def   LAS_RF1 = LAS_FERA_TDC[0x2a]
  5  def   LAS_RF2 = LAS_FERA_TDC[0x2c]
  5  def   LAS_RF3 = LAS_FERA_TDC[0x2e]
  5  def   GR_TPOS1 = GR_TDC[2]-GR_TDC[1]
  5  def   GR_TPOS2 = GR_TDC[4]-GR_TDC[3]  
  5  def   GR_MADC1 = sqrt(GR_ADC[1]*GR_ADC[2])
  5  def   GR_MADC2 = sqrt(GR_ADC[3]*GR_ADC[4])
  5  def   GR_MADC3 = sqrt(GR_ADC[5]*GR_ADC[6]) 
  5  def   BLP_ADC1 = GR_ADC_OLD[0]
  5  def   BLP_ADC2 = GR_ADC_OLD[1]
  5  def   BLP_ADC3 = GR_ADC_OLD[2]
  5  def   BLP_ADC4 = GR_ADC_OLD[3]
  5  def   BLP_ADC5 = GR_ADC_OLD[4]
  5  def   BLP_ADC6 = GR_ADC_OLD[5]
  5  def   BLP_ADC7 = GR_ADC_OLD[6]
  5  def   BLP_ADC8 = GR_ADC_OLD[7]
  5  def   BLP_TDC1 = GR_TDC_OLD[0]
  5  def   BLP_TDC2 = GR_TDC_OLD[1]
  5  def   BLP_TDC3 = GR_TDC_OLD[2]
  5  def   BLP_TDC4 = GR_TDC_OLD[3]
  5  def   BLP_TDC5 = GR_TDC_OLD[4]
  5  def   BLP_TDC6 = GR_TDC_OLD[5]
  5  def   BLP_TDC7 = GR_TDC_OLD[6]
  5  def   BLP_TDC8 = GR_TDC_OLD[7]
  5  def   LAS_TPOS1 = LAS_TDC[2]-LAS_TDC[1]
  5  def   LAS_TPOS2 = LAS_TDC[4]-LAS_TDC[3]
  5  def   LAS_TPOS3 = LAS_TDC[6]-LAS_TDC[5]
  5  def   LAS_TPOS4 = LAS_TDC[8]-LAS_TDC[7]
  5  def   LAS_TPOS5 = LAS_TDC[10]-LAS_TDC[9]
  5  def   LAS_TPOS6 = LAS_TDC[12]-LAS_TDC[11]
  5  def   LAS_MADC1 = sqrt(LAS_ADC[1]*LAS_ADC[2])
  5  def   LAS_MADC2 = sqrt(LAS_ADC[3]*LAS_ADC[4])
  5  def   LAS_MADC3 = sqrt(LAS_ADC[5]*LAS_ADC[6])
  5  def   LAS_MADC4 = sqrt(LAS_ADC[7]*LAS_ADC[8])
  5  def   LAS_MADC5 = sqrt(LAS_ADC[9]*LAS_ADC[10])
  5  def   LAS_MADC6 = sqrt(LAS_ADC[11]*LAS_ADC[12])
  3. com   Detector Configurations
  4  com   GR Chamber Configuration
  5  def   VDC_U_DX = 0
  5  def   GR_PL_X1 = {573.0+VDC_DX,0,0,   -6,  0.00, 10.}
  5  def   GR_PL_U1 = {602.9+VDC_DX+VDC_U_DX,0,20,  -4, -48.19, 10.}
  5  def   GR_PL_X2 = {323.0+VDC_DX,0,250, -6,  0.00, 10}
  5  def   GR_PL_U2 = {352.7+VDC_DX+VDC_U_DX,0,270, -4, -48.19, 10.}
 -5  def   GR_VDC_TILT = {0,45.25*d2r,0} # E316 09nov
  5  com   Angular Resolution of each Plane [deg]
  6  def   GR_ARES = {1.05, 1.97, 1.97, 1.05}
  4  com   LAS Chamber Configuration (UV)
  5  def   LAS_VDC_DY = +38.671 # The LAS detector is lifted by ~40mm (by Noro group). E282 08Nov
 -5  def   LAS_PL_X1 = {-757.76,LAS_VDC_DY,0,   6.,  0.0, 10.}
  5  def   LAS_PL_U1 = {-825.76,LAS_VDC_DY,20,  6.,-31.0, 10.}
  5  def   LAS_PL_V1 = {-821.26,LAS_VDC_DY,40,  6.,+31.0, 10.} # E249 05Jul
 -5  def   LAS_PL_X2 = {-508.36,LAS_VDC_DY,164, 6.,  0.0, 10.}
  5  def   LAS_PL_U2 = {-576.36,LAS_VDC_DY,184, 6.,-31.0, 10.}
  5  def   LAS_PL_V2 = {-571.86,LAS_VDC_DY,204, 6.,+31.0, 10.}
  5  def   LAS_VDC_TILT = {0,-54.04*d2r,0}
  5  com   Angular Resolution of each Plane [deg]
  6  def   LAS_ARES = {1.05, 1.97, 1.97, 1.05}
  3. com   GR-FPP Chamber Configuration
 -4  com   E316 09nov (by offline calibration of Run#9049)
  5  def   GF3_DX = 357.69 + 0.08
  5  def   GF3_DY = 4.05 - 0.73
  5  def   GF4_DX = GF3_DX + 0.25 - 2.97
  5  def   GF4_DY = GF3_DY - 0.52 - 0.58
 -4  com   E282&E316 Common
  5  def   GF_PL_X1 = { 470.00,0,1210.5, -2,   0, 1.}
  5  def   GF_PL_X2 = { 469.97,0,1466.1, -2,   0, 1.}
  5  def   GF_PL_U3 = {-903.68+GF3_DX,GF3_DY,1873.0,  2, -45, 1.}
  5  def   GF_PL_V3 = { 903.68+GF3_DX,GF3_DY,1885.0, -2,  45, 1.}
  5  def   GF_PL_U4 = {-994.19+GF4_DX,GF4_DY,2233.0,  2, -45, 1.}
  5  def   GF_PL_V4 = { 994.19+GF4_DX,GF4_DY,2245.0, -2,  45, 1.}
  3. com   Projection Plane {z,theta,phi}
  4  def   GR_N_VPLANE = 8
  5  com   at Z=0
  6  def   GR_PLANE_0 = {0,GR_VDC_TILT[1],0}
  5  com   at X1
  6  def   GR_PLANE_1 = {GR_PL_X1[2],GR_VDC_TILT[1],0}
  5  com   at X2
  6  def   GR_PLANE_2 = {GR_PL_X2[2],GR_VDC_TILT[1],0}
  5  com   at PS1
  6  def   GR_PLANE_3 = {452,GR_VDC_TILT[1],0}
  5  com   at PS3
  6  def   GR_PLANE_4 = {1730,0,0}
  5  com   at Carbon Block
  6  def   GR_PLANE_5 = {1790,0,0}
  5  com   at FPP-U3
  6  def   GR_PLANE_6 = {1873,0,0}
  5  com   at FPP-U4
  6  def   GR_PLANE_7 = {2233,0,0}
  4  def   LAS_N_VPLANE = 2
  5  def   LAS_PLANE_0 = {0,LAS_VDC_TILT[1],0}
  5  def   LAS_PLANE_1 = {LAS_PL_X1[2],LAS_VDC_TILT[1],0}
  4  def   GF_OUT_N_VPLANE = 2
  5  com   at FPP-U3
  6  def   GF_OUT_PLANE_0 = {1873,0,0}
  5  com   at FPP-U4
  6  def   GF_OUT_PLANE_1 = {2233,0,0}
  2. com   GR Trace-Back Matrix
 -3  def   GR_EN = GR_XC*0.0265+9.391 # 8deg
  3  def   GR_EN = GR_XC*0.0247+18.147-0.4
 -3  def   GR_YC = GR_Y+700.*GR_PH-6.4 # for natC E421 E422
  3  def   GR_YC = GR_Y+700.*GR_PH-(6.4-4.7) # for main target E421 E422
  3  def   GR_PHC = GR_PH-0.000000001*GR_Y-0.002 # for main target E421 E422
 -3  def   GR_PHC = GR_PH-0.0001*GR_Y-0.002 # for main target E421 E422, 94Zr
  2. com   XC for e421online
  3  def   GR_XC = GR_X - polynom(GR_TH*r2d, GR_XC_C)
 -3  def   GR_XC = GR_X - polynom(GR_THC*r2d, GR_XC_C)
 -3  def   GR_XC_C = { 0,14.488,-1.2052} # 0deg
 -3  def   GR_XC_C = { 0,14.373,-0.70152} # Au elstic 8deg
  3  def   GR_XC_C = { 0,14.373-0.886295,-0.70152-0.00248843} # Au elstic 8deg on 7-June-2015
 -3  def   GR_XC_C = { 0,11.45,-0.5225} # C elstic 8deg
 -3  def   GR_XC_C = { -0.375, -7.54} # Au(d,d0) at 10 deg
 -3  def   GR_XC_C = { 0.00,  +6} # Au(d,d0) at 10 deg
 -2. com   Matrix for E282-mag2 070507 for NIM
 -4. com   Matrix for A (for E282-mag2 070507 for NIM)
  5  def   GR_AMAT_01 = { 0000,   1.61034e-02}
  5  def   GR_AMAT_02 = { 0100,  -4.17069e-01}
  5  def   GR_AMAT_03 = { 1000,   2.36614e-05}
 -4. com   Matrix for B (for E282-mag2 070507 for NIM)
  5  def   GR_BMAT_01 = { 0000,  -6.80045e-03}
  5  def   GR_BMAT_02 = { 0000,  -1.75957e-03*RUN_LAS_YG}
  5  def   GR_BMAT_03 = { 0001,   2.46027e+00}
  5  def   GR_BMAT_04 = { 0010,  -3.26673e-03}
  5  def   GR_BMAT_05 = { 0011,  -4.29038e-03}
  5  def   GR_BMAT_06 = { 0100,  -2.76651e-02}
  5  def   GR_BMAT_07 = { 0101,   2.37656e+01}
  5  def   GR_BMAT_08 = { 0110,   1.20404e-02}
  5  def   GR_BMAT_09 = { 0111,   8.86801e-02}
  5  def   GR_BMAT_10 = { 1000,   7.38007e-06}
  5  def   GR_BMAT_11 = { 1000,  -1.16108e-07*RUN_LAS_YG}
  5  def   GR_BMAT_12 = { 1001,  -1.75519e-03}
  5  def   GR_BMAT_13 = { 1010,  -1.86523e-06}
  5  def   GR_BMAT_14 = { 1011,   2.90648e-06}
  5  def   GR_BMAT_15 = { 1100,   4.98760e-05}
  5  def   GR_BMAT_16 = { 1101,   1.02579e-02}
  5  def   GR_BMAT_17 = { 1110,   6.02465e-06}
  5  def   GR_BMAT_18 = { 1111,   4.02911e-04}
 -3  com   Matrix for E316 09Nov
  4. com   Matrix for A (not calibratied yet)
  5  def   GR_AMAT_01 = { 0000,   1.61034e-02}
  5  def   GR_AMAT_02 = { 0100,  -4.17069e-01}
  5  def   GR_AMAT_03 = { 1000,   2.36614e-05}
  5  def   GR_AMAT_04 = { 0000,   1.09e-03} # Offset due to mis-alignment of the sieve-slit, see log note vol1-p.36, analysis note p.58
  4. com   Matrix for B (not calibrated yet)
 -5  def   GR_BMAT_01 = { 0000,  -9.65234e-03+0.008}
  5  def   GR_BMAT_01 = { 0000,  -9.65234e-03}
  5  def   GR_BMAT_02 = { 0000,  -1.07086e-03*RUN_LAS_YG}
  5  def   GR_BMAT_03 = { 0001,   4.17063e+00}
  5  def   GR_BMAT_04 = { 0010,  -1.99037e-03}
  5  def   GR_BMAT_05 = { 1000,   6.16186e-06}
  5  def   GR_BMAT_06 = { 1000,   6.17463e-07*RUN_LAS_YG}
  5  def   GR_BMAT_07 = { 0000,  +(2.15e-04*RUN_LAS_YG)} # calculated ideal slope, see analysis note p.43
  4. com   Matrix for YC (not calibrated yet)
  5  def   GR_YMAT_01 = { 0010,   1.00000e+00}
  5  def   GR_YMAT_02 = { 0000,  -3.74081e-01+2.720}
  5  def   GR_YMAT_03 = { 0000,   1.05732e+00*RUN_LAS_YG}
  5  def   GR_YMAT_04 = { 0001,   7.17335e+02+700}
  5  def   GR_YMAT_05 = { 0100,  -5.20327e+01}
  5  def   GR_YMAT_06 = { 0101,   9.00266e+03}
  5  def   GR_YMAT_07 = { 1000,   1.24845e-02}
  5  def   GR_YMAT_08 = { 1001,  -3.22387e+00}
  5  def   GR_YMAT_09 = { 1101,  -1.37672e+01}
  4  com   Matrix for Xc
 -5. com   no correction
  6  def   GR_XMAT_01 = { 1000,  1.000e-00 }
  5. com   xc-th (not calibrated yet)
  6  def   GR_XMAT_01 = { 0000,   0.00000e+00}
  6  def   GR_XMAT_02 = { 0100,  -4.95293e+02}
  6  def   GR_XMAT_03 = { 0200,   5.35956e+03}
  6  def   GR_XMAT_04 = { 0300,  -3.27460e+04}
  6  def   GR_XMAT_05 = { 0400,   2.02434e+05}
  6  def   GR_XMAT_06 = { 1000,   1.00000e+00}
  6  def   GR_XMAT_07 = { 1100,  -7.37824e-01}
  6  def   GR_XMAT_08 = { 1200,   2.79054e+00}
  6  def   GR_XMAT_09 = { 1300,  -2.76952e+01}
  6  def   GR_XMAT_10 = { 1400,   4.44175e+02}
  4. com   Matrix for PHC  (not calibrated yet)
  5  def   GR_PHMAT_01 = { 0000,  0.000 }
  5  def   GR_PHMAT_02 = { 0001,  1.000 }
  5  def   GR_PHMAT_03 = { 0010, -2.27E-4}
  2. com   LAS Trace-Back Matrix
  3  com   converted on 27-JUL-2000 from jul93las_xmat.par by Noro-group
  4  com   akv1=0.2e-4 k-value of this matrix
  2. com   Matrix for X
  3  def   LAS_XMAT_01 = { 0000,  0.22806E-01 }
  3  def   LAS_XMAT_02 = { 1000,  0.23392E-03 }
  3  def   LAS_XMAT_03 = { 0100, -0.29214E-01 }
  3  def   LAS_XMAT_04 = { 0010,  0.90449E-05 }
  3  def   LAS_XMAT_05 = { 0001,  0.61528E-02 }
  3  def   LAS_XMAT_06 = { 2000,  0.65014E-07 }
  3  def   LAS_XMAT_07 = { 1100, -0.33089E-05 }
  3  def   LAS_XMAT_08 = { 1010, -0.10777E-07 }
  3  def   LAS_XMAT_09 = { 1001,  0.11167E-04 }
  3  def   LAS_XMAT_10 = { 0200,  0.16362E-01 }
  3  def   LAS_XMAT_11 = { 0110, -0.76469E-05 }
  3  def   LAS_XMAT_12 = { 0101, -0.14984E-01 }
  3  def   LAS_XMAT_13 = { 0020,  0.89652E-07 }
  3  def   LAS_XMAT_14 = { 0011, -0.22450E-04 }
  3  def   LAS_XMAT_15 = { 0002, -0.10874E-02 }
  3  def   LAS_XMAT_16 = { 3000,  0.49676E-11 }
  3  def   LAS_XMAT_17 = { 2100, -0.48154E-07 }
  3  def   LAS_XMAT_18 = { 2010, -0.44922E-11 }
  3  def   LAS_XMAT_19 = { 2001, -0.21891E-08 }
  3  def   LAS_XMAT_20 = { 1200, -0.77687E-05 }
  3  def   LAS_XMAT_21 = { 1110,  0.61315E-08 }
  3  def   LAS_XMAT_22 = { 1101, -0.83385E-05 }
  3  def   LAS_XMAT_23 = { 1020,  0.40743E-10 }
  3  def   LAS_XMAT_24 = { 1011,  0.20944E-07 }
  3  def   LAS_XMAT_25 = { 1002,  0.17309E-05 }
  3  def   LAS_XMAT_26 = { 0300, -0.48981E-02 }
  3  def   LAS_XMAT_27 = { 0210,  0.20841E-05 }
  3  def   LAS_XMAT_28 = { 0201,  0.53219E-02 }
  3  def   LAS_XMAT_29 = { 0120,  0.32648E-08 }
  3  def   LAS_XMAT_30 = { 0111,  0.11717E-04 }
  3  def   LAS_XMAT_31 = { 0102, -0.73120E-03 }
  3  def   LAS_XMAT_32 = { 0021,  0.12566E-06 }
  3  def   LAS_XMAT_33 = { 0012, -0.52859E-04 }
  3  def   LAS_XMAT_34 = { 0003,  0.35165E-01 }
  3  def   LAS_XMAT_35 = { 4000, -0.35735E-13 }
  3  def   LAS_XMAT_36 = { 0400, -0.13701E-03 }
  3  def   LAS_XMAT_37 = { 0040, -0.66081E-11 }
  3  def   LAS_XMAT_38 = { 0004,  0.10286E-01 }
  3  def   LAS_XMAT_39 = { 3100,  0.30037E-10 }
  3  def   LAS_XMAT_40 = { 2200, -0.32596E-08 }
  3  def   LAS_XMAT_41 = { 1300,  0.75084E-05 }
  2. com   Matrix for A
  3  def   LAS_AMAT_01 = { 0000, -0.90882E+03}
  3  def   LAS_AMAT_02 = { 1000, -0.98402E+00}
  3  def   LAS_AMAT_03 = { 0100,  0.21078E+04}
  3  def   LAS_AMAT_04 = { 0010, -0.81389E-02}
  3  def   LAS_AMAT_05 = { 0001, -0.15176E+03}
  3  def   LAS_AMAT_06 = { 2000, -0.47535E-03}
  3  def   LAS_AMAT_07 = { 1100,  0.20539E+01}
  3  def   LAS_AMAT_08 = { 1010,  0.82019E-05}
  3  def   LAS_AMAT_09 = { 1001, -0.10719E+00}
  3  def   LAS_AMAT_10 = { 0200, -0.20867E+04}
  3  def   LAS_AMAT_11 = { 0110, -0.39076E-02}
  3  def   LAS_AMAT_12 = { 0101,  0.23063E+03}
  3  def   LAS_AMAT_13 = { 0020,  0.17441E-02}
  3  def   LAS_AMAT_14 = { 0011,  0.17144E+00}
  3  def   LAS_AMAT_15 = { 0002,  0.46881E+02}
  3  def   LAS_AMAT_16 = { 3000, -0.12898E-06}
  3  def   LAS_AMAT_17 = { 2100,  0.72953E-03}
  3  def   LAS_AMAT_18 = { 2010, -0.50616E-09}
  3  def   LAS_AMAT_19 = { 2001,  0.72687E-05}
  3  def   LAS_AMAT_20 = { 1200, -0.15317E+01}
  3  def   LAS_AMAT_21 = { 1110, -0.72434E-05}
  3  def   LAS_AMAT_22 = { 1101,  0.76453E-01}
  3  def   LAS_AMAT_23 = { 1020,  0.38152E-06}
  3  def   LAS_AMAT_24 = { 1011,  0.44978E-04}
  3  def   LAS_AMAT_25 = { 1002,  0.41038E-01}
  3  def   LAS_AMAT_26 = { 0300,  0.10045E+04}
  3  def   LAS_AMAT_27 = { 0210,  0.33079E-02}
  3  def   LAS_AMAT_28 = { 0201, -0.76794E+02}
  3  def   LAS_AMAT_29 = { 0120, -0.94281E-03}
  3  def   LAS_AMAT_30 = { 0111, -0.38992E-01}
  3  def   LAS_AMAT_31 = { 0102, -0.10189E+01}
  3  def   LAS_AMAT_32 = { 0021, -0.62901E-03}
  3  def   LAS_AMAT_33 = { 0012, -0.92175E-01}
  3  def   LAS_AMAT_34 = { 0003, -0.21562E+03}
  3  def   LAS_AMAT_35 = { 4000, -0.13113E-10}
  3  def   LAS_AMAT_36 = { 0400, -0.18417E+03}
  3  def   LAS_AMAT_37 = { 0040, -0.23016E-07}
  3  def   LAS_AMAT_38 = { 0004, -0.30098E+03}
  3  def   LAS_AMAT_39 = { 3100,  0.97679E-07}
  3  def   LAS_AMAT_40 = { 2200, -0.27604E-03}
  3  def   LAS_AMAT_41 = { 1300,  0.38034E+00}
  2. com   Reaction
  3  com   Run Dependent Default Value
  4  def   RUN_dEX = 0.000 # Excitation Energy Shift
  4  def   RUN_dYC = 0.000 # YC Shift (mm)
  4  def   RUN_dPHC = 0.000 # PHC Shift (rad)
  4  def   RUN_LAS_YG = 0.000 # LAS Y Central Position for (-50<=LAS_X<=50mm)
  4  def   M2 = M_12C # Target Mass [MeV/c2]
  4  def   GR_ANG = 0.0
  3  com   Common
  4  com   Projectile Kinetic Energy [MeV]
  5  def   T1 = 65
  4  com   Projectile Mass [MeV/c2]
  5  def   M1 = M_p
  4  com   Scattered Particle Mass [MeV/c2]
  5  def   GR_M3 = M_p
  4  com   Recoil Particle Mass (g.s.) [MeV/c2]
  5  def   GR_M4 = M2
  4  com   Charge of the particle [eC]
  5  def   GR_q = 1
  5  def   LAS_q = 1
  4  com   Spectrometer Bending Radius [m]
  5  def   GR_Rho = 3.00
  5  def   LAS_Rho = 1.75
  4  com   Residual Particle Mass for GR+LAS [MeV/c2]
  5  def   M5 = 0.0
  4  com   Energy loss of the ejectile in the target [MeV]
  5  def   GR_DE = 0
  3  com   faint
  4  com   Target Mass [MeV/c2]
  5  def   M2 = M_p
  4  com   Magnetic field of the Dipoles [mT]
  5  def   GR_B = 868.3 # 0deg for oct06
 -3. com   p+12C   inelastic
  4  com   Target Mass [MeV/c2]
  5  def   M2 = M_12C
  4  com   Magnetic field of the Dipoles [mT]
  5  def   GR_B = 868.3 # 0deg for oct06
 -3. com   p+27Al   inelastic
  4  com   Target Mass [MeV/c2]
  5  def   M2 = 25133.150 # 27Al mass MeV/c^2
 -3. com   p+58Ni  inelastic
  4  com   Target Mass [MeV/c2]
  5  def   M2 = M_58Ni
  4  com   Magnetic field of the Dipoles [mT]
  5  def   GR_B = 871.5 # 0deg for oct06
 -3  com   p+120Sn inelastic
 -3. com   a+90Zr inelastic
  5  com   Magnetic field of the Dipoles [mT]
  6  def   GR_B = 950.621 # 2.8deg 90Zr
  4. com   Target Mass [MeV/c2]
  5  def   M2 = 83745.7 # 90Zr mass MeV/c^2
 -3. com   p+154Sm inelastic
  4  com   Target Mass [MeV/c2]
  5  def   M2 = 143377.660 # 154Sm mass MeV/c^2
  4  com   Magnetic field of the Dipoles [mT]
 -3. com   p+197Au elastic
  4  com   Projectile Kinetic Energy [MeV]
  5  def   T1 = 301.84
  4  com   Energy loss of the ejectile in the target [MeV]
  5  def   GR_DE = 0
  4  com   Target Mass [MeV/c2]
  5  def   M2 = 197*AMU
  4  com   Spectrometer angle
  5  def   GR_ANG = 8.0
  5  def   LAS_ANG = 33.7
  4  com   Magnetic field of the Dipoles [mT]
  5  def   GR_B = 889.187
  5  def   LAS_B = 1511.325
 -3. com   p+208Pb inelastic
  4  com   Target Mass [MeV/c2]
  5  def   M2 = M_208Pb
  4  com   Magnetic field of the Dipoles [mT]
  1  com   Definition of Variables
  2. com   Spin
  3  def   SPIN_UP = !(IPR&0x0002)
  3  def   SPIN_DN = !(IPR&0x0004)
  3  def   SPIN_DOWN = SPIN_DN
  3  def   SPIN = SPIN_UP+SPIN_DN*2
  2. com   BLP Mode
  3  def   BLP1_IN = !(IPR&0x0008)
  3  def   BLP2_IN = !(IPR&0x0010)
  3  def   BLP = BLP1_IN+BLP2_IN*2
  2. com   Event
  3. com   Bit
  4  def   EVENT_GR = bit(IPR,6-1)
  4  def   EVENT_LAS = bit(IPR,8-1)
  4  def   EVENT_COIN = bit(IPR,9-1)
  4  def   EVENT_2FPP = bit(IPR,10-1)
  4  def   EVENT_SLEVEL = bit(IPR,11-1)
  4  def   EVENT_FPP = bit(IPR,12-1)
  4  def   SLEVEL_ACC = bit(IPR,13-1)
  4  def   SLEVEL_REJ = bit(IPR,14-1)
  4  def   EVENT_BLP1 = bit(IPR,13-1)
  4  def   EVENT_BLP2 = bit(IPR,14-1)
  4  def   EVENT_BEND = bit(IPR,16-1)
  3  def   EVENT_GR_COIN = EVENT_GR || EVENT_COIN
  3  def   EVENT_LAS_COIN = EVENT_LAS || EVENT_COIN
 -3  def   EVENT_GR_FPP = EVENT_GR_COIN && EVENT_FPP
 -3  def   EVENT_GR_FPP = EVENT_GR_COIN
  3  def   EVENT_1ST = EVENT_LAS_COIN && EVENT_2FPP
 -3  def   EVENT_2ND = EVENT_GR && EVENT_2FPP && EVENT_SLEVEL
 -3  def   EVENT_2ND_SAMP = EVENT_GR && EVENT_2FPP && EVENT_SLEVEL
  3  def   EVENT_2ND = EVENT_SLEVEL
  3  def   EVENT_2ND_SAMP = !EVENT_SLEVEL
  3  def   EVENT = EVENT_SLEVEL | (EVENT_FPP<<1) | (EVENT_GR<<2) | (EVENT_LAS<<3) | (EVENT_COIN<<4)
  3  def   SLEVEL = SLEVEL_ACC | (SLEVEL_REJ<<1)
  2  com   GR ADC 
  3  def   GR_ADC[1] = GR_FERA_ADC[0x10]
  3  def   GR_ADC[2] = GR_FERA_ADC[0x11]
  3  def   GR_ADC[3] = GR_FERA_ADC[0x12]
  3  def   GR_ADC[4] = GR_FERA_ADC[0x13]
  3  def   GR_ADC[5] = GR_FERA_ADC[0x20]
  3  def   GR_ADC[6] = GR_FERA_ADC[0x28]
  3  def   GR_MADC[1] = sqrt(GR_ADC[1]*GR_ADC[2])
  3  def   GR_MADC[2] = sqrt(GR_ADC[3]*GR_ADC[4])
  3  def   GR_MADC[3] = sqrt(GR_ADC[5]*GR_ADC[6])
  2. com   GR TDC 
 -3  def   GR_TDC[1] = GR_FERA_TDC[0x10]
  3  def   GR_TDC[1] = GR_FERA_TDC[0x16] # due to broke channel
  3  def   GR_TDC[2] = GR_FERA_TDC[0x11]
  3  def   GR_TDC[3] = GR_FERA_TDC[0x12]
  3  def   GR_TDC[4] = GR_FERA_TDC[0x13]
  3  def   GR_TDC[5] = GR_FERA_TDC[0x20]
  3  def   GR_TDC[6] = GR_FERA_TDC[0x28]
  3  def   GR_RF = GR_FERA_TDC[0x14]
  3  def   GR_TLAS = GR_FERA_TDC[0x15]
  3  def   GR_TPOS[1] = GR_TDC[2]-GR_TDC[1]
  3  def   GR_TPOS[2] = GR_TDC[4]-GR_TDC[3]
  2. com   GR Optics
  3. com   RFC
  4  def   GR_RFC = GR_RF[0]-0.067*GR_X[0]-31.0*GR_THC[0]*r2d-2.23e-3*GR_X[0]-1.67e-5*GR_X[0]*GR_X[0]
 -4  def   GR_RFC = GR_RF[0]-0.067*GR_X[0]-31.0*GR_THC[0]*r2d
 -4  def   GR_RFC = GR_RF[0]-0.067*GR_X[0]
  3  com   Ray
  4  com   No B.G. Correction
  5  def   GR_X = GR_XP[0]
  5  def   GR_Y = GR_YP[0]
  5  def   GR_TH = GR_RAY_TH[0]
  5  def   GR_PH = GR_RAY_PH[0]
  3  com   Particle momentum [MeV/c]
  3  com   Horizontal scattering angle [rad]
 -4  def   GR_THC = -0.4191*(GR_TH-8.770e-3-3.591e-5*GR_X)
  4  def   GR_THC = -0.4191*(GR_TH-6.770e-2-9.591e-5*GR_X)
 -4  def   GR_THC = GR_TH-3.591e-5*GR_X
  4  def   GR_EX_BI_CORR = {0.0} # Normal
  4  def   GR_EX_C = polynom(GR_EX[0], GR_EX_C_EX)+RUN_dEX # 06Nov
  2. com   LAS ADC 
  3  def   LAS_ADC[1] = LAS_FERA_ADC[0x10]
  3  def   LAS_ADC[2] = LAS_FERA_ADC[0x11]
  3  def   LAS_ADC[3] = LAS_FERA_ADC[0x12]
  3  def   LAS_ADC[4] = LAS_FERA_ADC[0x13]
  3  def   LAS_ADC[5] = LAS_FERA_ADC[0x14]
  3  def   LAS_ADC[6] = LAS_FERA_ADC[0x15]
  3  def   LAS_ADC[7] = LAS_FERA_ADC[0x16]
  3  def   LAS_ADC[8] = LAS_FERA_ADC[0x17]
  3  def   LAS_ADC[9] = LAS_FERA_ADC[0x18]
  3  def   LAS_ADC[10] = LAS_FERA_ADC[0x19]
  3  def   LAS_ADC[11] = LAS_FERA_ADC[0x1a]
  3  def   LAS_ADC[12] = LAS_FERA_ADC[0x1b]
  3  def   LAS_MADC[1] = sqrt(LAS_ADC[1]*LAS_ADC[2])
  3  def   LAS_MADC[2] = sqrt(LAS_ADC[3]*LAS_ADC[4])
  3  def   LAS_MADC[3] = sqrt(LAS_ADC[5]*LAS_ADC[6])
  3  def   LAS_MADC[4] = sqrt(LAS_ADC[7]*LAS_ADC[8])
  3  def   LAS_MADC[5] = sqrt(LAS_ADC[9]*LAS_ADC[10])
  3  def   LAS_MADC[6] = sqrt(LAS_ADC[11]*LAS_ADC[12])
  2. com   LAS TDC 
  3  def   LAS_TDC[1] = LAS_FERA_TDC[0x10]
  3  def   LAS_TDC[2] = LAS_FERA_TDC[0x12]
  3  def   LAS_TDC[3] = LAS_FERA_TDC[0x14]
  3  def   LAS_TDC[4] = LAS_FERA_TDC[0x16]
  3  def   LAS_TDC[5] = LAS_FERA_TDC[0x18]
  3  def   LAS_TDC[6] = LAS_FERA_TDC[0x1a]
  3  def   LAS_TDC[7] = LAS_FERA_TDC[0x1c]
  3  def   LAS_TDC[8] = LAS_FERA_TDC[0x1e]
  3  def   LAS_TDC[9] = LAS_FERA_TDC[0x20]
  3  def   LAS_TDC[10] = LAS_FERA_TDC[0x22]
  3  def   LAS_TDC[11] = LAS_FERA_TDC[0x24]
  3  def   LAS_TDC[12] = LAS_FERA_TDC[0x26]
  3  def   LAS_RF[1] = LAS_FERA_TDC[0x2a]
  3  def   LAS_RF[2] = LAS_FERA_TDC[0x2c]
  3  def   LAS_RF[3] = LAS_FERA_TDC[0x2e]
  3  def   LAS_TPOS[1] = LAS_TDC[2]-LAS_TDC[1]
  3  def   LAS_TPOS[2] = LAS_TDC[4]-LAS_TDC[3]
  3  def   LAS_TPOS[3] = LAS_TDC[6]-LAS_TDC[5]
  3  def   LAS_TPOS[4] = LAS_TDC[8]-LAS_TDC[7]
  3  def   LAS_TPOS[5] = LAS_TDC[10]-LAS_TDC[9]
  3  def   LAS_TPOS[6] = LAS_TDC[12]-LAS_TDC[11]
  2. com   EVENT LAS
  3  def   EVENT_LAS_TRUE = LAS_PI_P && LAS_RAYID[0]==0 && LAS_CHI2 < 10
 -3  def   EVENT_LAS_TRUE = LAS_PI_P && LAS_RAYID[0]==0
  2. com   LAS Optics
  3  com   Particle momentum [MeV/c]
  4  def   LAS_P = (LAS_DP+1)*0.3*LAS_B*LAS_Rho*LAS_q
  3  com   Scattering angle [red]
  4  def   LAS_TH3 = LAS_ANG*d2r+LAS_AI
  4  def   LAS_EXC = LAS_EX
  2. com   GR-FPP Hodoscope ADC 
  3  def   GF_ADC_XU[1] = GR_FERA_ADC[0x20]
  3  def   GF_ADC_XU[2] = GR_FERA_ADC[0x21]
  3  def   GF_ADC_XU[3] = GR_FERA_ADC[0x22]
  3  def   GF_ADC_XU[4] = GR_FERA_ADC[0x23]
  3  def   GF_ADC_XU[5] = GR_FERA_ADC[0x24]
  3  def   GF_ADC_XU[6] = GR_FERA_ADC[0x25]
  3  def   GF_ADC_XU[7] = GR_FERA_ADC[0x26]
  3  def   GF_ADC_XU[8] = GR_FERA_ADC[0x27]
  3  def   GF_ADC_XD[1] = GR_FERA_ADC[0x28]
  3  def   GF_ADC_XD[2] = GR_FERA_ADC[0x29]
  3  def   GF_ADC_XD[3] = GR_FERA_ADC[0x2a]
  3  def   GF_ADC_XD[4] = GR_FERA_ADC[0x2b]
  3  def   GF_ADC_XD[5] = GR_FERA_ADC[0x2c]
  3  def   GF_ADC_XD[6] = GR_FERA_ADC[0x2d]
  3  def   GF_ADC_XD[7] = GR_FERA_ADC[0x2e]
  3  def   GF_ADC_XD[8] = GR_FERA_ADC[0x2f]
  3  def   GF_ADC_YL[1] = GR_FERA_ADC[0x16]
  3  def   GF_ADC_YL[2] = GR_FERA_ADC[0x17]
  3  def   GF_ADC_YL[3] = GR_FERA_ADC[0x18]
  3  def   GF_ADC_YL[4] = GR_FERA_ADC[0x19]
  3  def   GF_ADC_YL[5] = GR_FERA_ADC[0x1a]
  3  def   GF_ADC_YR[1] = GR_FERA_ADC[0x1b]
  3  def   GF_ADC_YR[2] = GR_FERA_ADC[0x1c]
  3  def   GF_ADC_YR[3] = GR_FERA_ADC[0x1d]
  3  def   GF_ADC_YR[4] = GR_FERA_ADC[0x1e]
  3  def   GF_ADC_YR[5] = GR_FERA_ADC[0x1f]
  3  def   GF_MADC_X[1] = sqrt(GF_ADC_XU[1]*GF_ADC_XD[1])
  3  def   GF_MADC_X[2] = sqrt(GF_ADC_XU[2]*GF_ADC_XD[2])
  3  def   GF_MADC_X[3] = sqrt(GF_ADC_XU[3]*GF_ADC_XD[3])
  3  def   GF_MADC_X[4] = sqrt(GF_ADC_XU[4]*GF_ADC_XD[4])
  3  def   GF_MADC_X[5] = sqrt(GF_ADC_XU[5]*GF_ADC_XD[5])
  3  def   GF_MADC_X[6] = sqrt(GF_ADC_XU[6]*GF_ADC_XD[6])
  3  def   GF_MADC_X[7] = sqrt(GF_ADC_XU[7]*GF_ADC_XD[7])
  3  def   GF_MADC_X[8] = sqrt(GF_ADC_XU[8]*GF_ADC_XD[8])
  3  def   GF_MADC_Y[1] = sqrt(GF_ADC_YL[1]*GF_ADC_YR[1])
  3  def   GF_MADC_Y[2] = sqrt(GF_ADC_YL[2]*GF_ADC_YR[2])
  3  def   GF_MADC_Y[3] = sqrt(GF_ADC_YL[3]*GF_ADC_YR[3])
  3  def   GF_MADC_Y[4] = sqrt(GF_ADC_YL[4]*GF_ADC_YR[4])
  3  def   GF_MADC_Y[5] = sqrt(GF_ADC_YL[5]*GF_ADC_YR[5])
  2. com   GR-FPP Hodoscope TDC 
  3  def   GF_TDC_XU[1] = GR_FERA_TDC[0x20]
  3  def   GF_TDC_XU[2] = GR_FERA_TDC[0x21]
  3  def   GF_TDC_XU[3] = GR_FERA_TDC[0x22]
  3  def   GF_TDC_XU[4] = GR_FERA_TDC[0x23]
  3  def   GF_TDC_XU[5] = GR_FERA_TDC[0x24]
  3  def   GF_TDC_XU[6] = GR_FERA_TDC[0x25]
  3  def   GF_TDC_XU[7] = GR_FERA_TDC[0x26]
  3  def   GF_TDC_XU[8] = GR_FERA_TDC[0x27]
  3  def   GF_TDC_XD[1] = GR_FERA_TDC[0x28]
  3  def   GF_TDC_XD[2] = GR_FERA_TDC[0x29]
  3  def   GF_TDC_XD[3] = GR_FERA_TDC[0x2a]
  3  def   GF_TDC_XD[4] = GR_FERA_TDC[0x2b]
  3  def   GF_TDC_XD[5] = GR_FERA_TDC[0x2c]
  3  def   GF_TDC_XD[6] = GR_FERA_TDC[0x2d]
  3  def   GF_TDC_XD[7] = GR_FERA_TDC[0x2e]
  3  def   GF_TDC_XD[8] = GR_FERA_TDC[0x2f]
  3  def   GF_TDC_YL[1] = GR_FERA_TDC[0x16]
  3  def   GF_TDC_YL[2] = GR_FERA_TDC[0x17]
  3  def   GF_TDC_YL[3] = GR_FERA_TDC[0x18]
  3  def   GF_TDC_YL[4] = GR_FERA_TDC[0x19]
  3  def   GF_TDC_YL[5] = GR_FERA_TDC[0x1a]
  3  def   GF_TDC_YR[1] = GR_FERA_TDC[0x1b]
  3  def   GF_TDC_YR[2] = GR_FERA_TDC[0x1c]
  3  def   GF_TDC_YR[3] = GR_FERA_TDC[0x1d]
  3  def   GF_TDC_YR[4] = GR_FERA_TDC[0x1e]
  3  def   GF_TDC_YR[5] = GR_FERA_TDC[0x1f]
  3  def   GF_TPOS_X[1] = GF_TDC_XD[1]-GF_TDC_XU[1]
  3  def   GF_TPOS_X[2] = GF_TDC_XD[2]-GF_TDC_XU[2]
  3  def   GF_TPOS_X[3] = GF_TDC_XD[3]-GF_TDC_XU[3]
  3  def   GF_TPOS_X[4] = GF_TDC_XD[4]-GF_TDC_XU[4]
  3  def   GF_TPOS_X[5] = GF_TDC_XD[5]-GF_TDC_XU[5]
  3  def   GF_TPOS_X[6] = GF_TDC_XD[6]-GF_TDC_XU[6]
  3  def   GF_TPOS_X[7] = GF_TDC_XD[7]-GF_TDC_XU[7]
  3  def   GF_TPOS_X[8] = GF_TDC_XD[8]-GF_TDC_XU[8]
  3  def   GF_TPOS_Y[1] = GF_TDC_YR[1]-GF_TDC_YL[1]
  3  def   GF_TPOS_Y[2] = GF_TDC_YR[2]-GF_TDC_YL[2]
  3  def   GF_TPOS_Y[3] = GF_TDC_YR[3]-GF_TDC_YL[3]
  3  def   GF_TPOS_Y[4] = GF_TDC_YR[4]-GF_TDC_YL[4]
  3  def   GF_TPOS_Y[5] = GF_TDC_YR[5]-GF_TDC_YL[5]
  2. com   GR-FPP Optics
  3  def   GF_IN_X = GF_IN_XP[0]
  3  def   GF_IN_Y = GF_IN_YP[0]
  3  def   GF_IN_TH = GF_IN_RAY_TH[0]
  3  def   GF_IN_PH = GF_IN_RAY_PH[0]
  3  def   GF_OUT_X = GF_OUT_XP[0]
  3  def   GF_OUT_Y = GF_OUT_YP[0]
  3  def   GF_OUT_TH = GF_OUT_RAY_TH[0]
  3  def   GF_OUT_PH = GF_OUT_RAY_PH[0]
  3  def   GF_X = GF_OUT_X[0]
  3  def   GF_Y = GF_OUT_P[0]
  2. com   BLP
  3. com   BLP ADC
  4  def   BLP_ADC[1] = GR_ADC_OLD[0]
  4  def   BLP_ADC[2] = GR_ADC_OLD[1]
  4  def   BLP_ADC[3] = GR_ADC_OLD[2]
  4  def   BLP_ADC[4] = GR_ADC_OLD[3]
  4  def   BLP_ADC[5] = GR_ADC_OLD[4]
  4  def   BLP_ADC[6] = GR_ADC_OLD[5]
  4  def   BLP_ADC[7] = GR_ADC_OLD[6]
  4  def   BLP_ADC[8] = GR_ADC_OLD[7]
  3. com   BLP TDC
  4  def   BLP_TDC[1] = GR_TDC_OLD[0]
  4  def   BLP_TDC[2] = GR_TDC_OLD[1]
  4  def   BLP_TDC[3] = GR_TDC_OLD[2]
  4  def   BLP_TDC[4] = GR_TDC_OLD[3]
  4  def   BLP_TDC[5] = GR_TDC_OLD[4]
  4  def   BLP_TDC[6] = GR_TDC_OLD[5]
  4  def   BLP_TDC[7] = GR_TDC_OLD[6]
  4  def   BLP_TDC[8] = GR_TDC_OLD[7]
  3. com   BLP TDC True Range
 -4  def   BLP1_T = {2300,2700}
 -4  def   BLP2_T = {1600,1900}
  4  def   BLP1_T = {0,4096}
  4  def   BLP2_T = {0,4096}
  1  com   Definition of Gates
  2  com   GR Particle ID
  3  def   WIREX1_notgood = GR_PI_ADC && GR_RFGate
  3  def   GR_PI = GR_PI_ADC && GR_RFGate
 -3  def   GR_PI_ADC = gate(GR_MADC[1],102,227)  && gate(GR_MADC[2],142,251)
  3  def   GR_PI_ADC = gate(GR_MADC[1],184,276)  && gate(GR_MADC[2],194,302)
 -3  def   GR_RFGate = gate(GR_RF,526,658) || gate(GR_RF,1045,1205)
 -3  def   GR_RFGate = gate(GR_RF,454,512) # E421 Online test (1st Peak)
 -3  def   GR_RFGate = gate(GR_RF,512,555) # E421 Online test (2nd Peak)
 -3  def   GR_RFGate = gate(GR_RF,555,613) # E421 Online test (3rd Peak)
  3  def   GR_RFGate = gate(GR_RF,454,628) || gate(GR_RF,997,1184) # E421 Online until June5
 -3  def   GR_RFGate = gate(GR_RF,460,620) || gate(GR_RF,991,1159)
  3  def   GR_BLK = gate(BLOCK_N[0],0,30000)
 -3  def   GR_PI = TRUE
  2. com   GR Optics
 -3  def   GR_TH_NAR = gate(GR_THC[0]*r2d,-0.5, 0.5)
 -3  def   GR_TH_NAR = gate(GR_THC[0]*r2d,-0.6, 1.0)
 -3  def   GR_TH_NAR = gate(GR_THC[0]*r2d,0.80, 1.2)
  3  def   GR_TH_NAR = gate(GR_THC[0]*r2d,-0.5,0.5) # E421 and E422 for 0degree
 -3  def   GR_TH_NAR = gate(GR_THC[0]*r2d,-1.0,-0.5) # E421 and E422 for 0degree
 -3  def   GR_TH_NAR = gate(GR_THC[0]*r2d,0.0,1.0) # E421 and E422 for 2.5 and 4.5 angle
 -3  def   GR_TH_NAR = gate(GR_TH[0]*r2d,3.0,5.0) # E421 and E422 Au(p,p0) at 8deg
 -3  def   GR_TH_NAR = gate(GR_TH[0]*r2d,1.0, 3.0) # E421 and E422 for faint beam
 -3  def   GR_TH_NAR = gate(GR_THC[0]*r2d,0.1,0.4)
  3  def   GR_PH_NAR = gate(GR_PHC[0]*r2d,-0.25,0.25)
 -3  def   GR_TH_NAR1 = gate(GR_THC[0]*r2d,-0.2,0.2)
 -3  def   GR_TH_NAR2 = gate(GR_THC[0]*r2d,-0.6,-0.2)
 -3  def   GR_TH_NAR3 = gate(GR_THC[0]*r2d,-1.0,-0.6)
 -3  def   GR_TH_NAR4 = gate(GR_THC[0]*r2d,-1.4,-1.0)
 -3  def   GR_TH_NAR = gate(GR_THC[0]*r2d,-0.8,0.8)
 -3. com   GR_X Gate 08Nov
  4  def   G_X = gate(GR_X[0], 17, 46) # Run#8050 12C 15.1 MeV
 -4  def   G_X = gate(GR_X[0], -295, -273) # Run#8050 12C 7.6 MeV
 -4  def   G_X = gate(GR_X[0], -72, -64) # Run#8050 12C 12.7 MeV
 -4  def   G_X = gate(GR_X[0], 174, 256) # Run#8050 12C SDR
  3  def   G_ELASTIC = gate(GR_X[0],-500,-300)
  3  def   GR_EX_G = gate(GR_EX,-2,2)
  3  def   GR_CHI2_G = gate(GR_CHI2, 0, 50)
  3  def   GR_THC_G1 = gate(GR_THC[0]*r2d,-0.5,0.5)
  3  def   GR_Y_G = gate(GR_Y[0],-10.0,10.0)
 -3  def   GR_YC_G = TRUE # full open
  3  def   GR_YC_BGG = gate(GR_YC[0], -30.0, -10.0) # for calibrated YC, 2015 May E421 E422
 -3  def   GR_YC_BGGM = gate(GR_YC[0], -15.0, -5.0) # for calibrated YC, 2015 May E421 E422
  3  def   GR_YC_BGGM = gate(GR_YC[0], -14.0, -4.0) # for calibrated YC, 2015 May E421 E422, 96Zr
 -3  def   GR_YC_BGGM = gate(GR_YC[0], -12.0, -2.0) # for calibrated YC, 2015 May E421 E422, 94Zr
 -3  def   GR_YC_BGGP = gate(GR_YC[0], 5.0, 15.0) # for calibrated YC, 2015 May E421 E422
  3  def   GR_YC_BGGP = gate(GR_YC[0], 6.0, 16.0) # for calibrated YC, 2015 May E421 E422, 96Zr
 -3  def   GR_YC_BGGP = gate(GR_YC[0], 8.0, 18.0) # for calibrated YC, 2015 May E421 E422, 94Zr
 -3  def   GR_YC_G = gate(GR_YC[0], -5.0, 5.0) # for calibrated YC, 2015 May E421 E422
  3  def   GR_YC_G = gate(GR_YC[0], -4.0, 6.0) # for calibrated YC, 2015 May E421 E422, 96Zr
 -3  def   GR_YC_G = gate(GR_YC[0], -2.0, 8.0) # for calibrated YC, 2015 May E421 E422, 94Zr
  3  def   GR_YC_B = gate(GR_YC[0], -20, -10) || gate(GR_YC[0], 10, 20) # for calibrated YC
 -3  def   GR_TRUE = GR_YC_G && GR_PHC_G
  3  def   GR_TPOSP = gate(GR_TPOS[1],-50,-4)
  3  def   GR_TPOSC = GR_TPOS[2]-GR_XP[3]*0.045-14
  3  def   GR_TPOSC2 = GR_TPOS[2]+GR_POS_X1*0.3-42
  3. com   AI Gates
  4  def   GR_AI_G = GR_AI_G17
  4  def   GR_AI_G0 = gate(GR_AI[0]*r2d, -0.2, 0.2)
  4  def   GR_AI_G1 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G2 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G3 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G4 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G5 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G7 = gate(GR_AI[0]*r2d, -0.5, 0.0)
  4  def   GR_AI_G8 = gate(GR_AI[0]*r2d,  0.0, 0.5)
  4  def   GR_AI_G9 = gate(GR_AI[0]*r2d, -1.0,-0.5)
  4  def   GR_AI_G10 = gate(GR_AI[0]*r2d,  0.5, 1.0)
  4  def   GR_AI_G11 = gate(GR_AI[0]*r2d, -0.5, 0.0)
  4  def   GR_AI_G12 = gate(GR_AI[0]*r2d,  0.0, 0.5)
  4  def   GR_AI_G13 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G14 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G15 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G16 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G17 = gate(GR_AI[0]*r2d, -1.0, 1.0)
  4  def   GR_AI_G20 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G21 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G22 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  4  def   GR_AI_G23 = gate(GR_AI[0]*r2d, -0.5, 0.5)
  3. com   BI Gates
  4  def   GR_BI_G = GR_BI_G17
  4  def   GR_BI_G0 = gate(GR_BI[0]*r2d, -0.5, 0.5)
  4  def   GR_BI_G1 = gate(GR_BI[0]*r2d, -2.5, -1.5)
  4  def   GR_BI_G2 = gate(GR_BI[0]*r2d, -1.5, -0.5)
  4  def   GR_BI_G3 = gate(GR_BI[0]*r2d, -0.5,  0.5)
  4  def   GR_BI_G4 = gate(GR_BI[0]*r2d,  0.5,  1.5)
  4  def   GR_BI_G5 = gate(GR_BI[0]*r2d,  1.5,  2.5)
  4  def   GR_BI_G7 = gate(GR_BI[0]*r2d,  -2.0,  2.0)
  4  def   GR_BI_G8 = gate(GR_BI[0]*r2d,  -2.0,  2.0)
  4  def   GR_BI_G9 = gate(GR_BI[0]*r2d,  -1.0,  1.0)
  4  def   GR_BI_G10 = gate(GR_BI[0]*r2d,  -1.0,  1.0)
  4  def   GR_BI_G12 = TRUE
  4  def   GR_BI_G13 = gate(GR_BI[0]*r2d,  -0.5,  0.5)
  4  def   GR_BI_G14 = gate(GR_BI[0]*r2d,  -2.0,  2.0)
  4  def   GR_BI_G15 = gate(GR_BI[0]*r2d,  -1.0,  1.0)
  4  def   GR_BI_G16 = gate(GR_BI[0]*r2d,  -2.5,  2.5)
  4  def   GR_BI_G17 = gate(GR_BI[0]*r2d,  -2.5,  2.5)
  4  def   GR_BI_G20 = gate(abs(GR_BI[0]*r2d),  0.0,  0.8)
  4  def   GR_BI_G21 = gate(abs(GR_BI[0]*r2d),  0.8,  1.6)
  4  def   GR_BI_G22 = gate(abs(GR_BI[0]*r2d),  1.6,  2.4)
  4  def   GR_BI_G23 = gate(abs(GR_BI[0]*r2d),  0.0,  2.5)
  2. com   LAS Particle ID
  3  def   LAS_RF_G = gate(LAS_RF[2], 293, 488) || gate(LAS_RF[2], 604, 807)
  3  def   LAS_DE_G = gate(LAS_MADC[2], 120, 700) && gate(LAS_MADC[5], 100, 500)
 -3  def   LAS_PI = LAS_RF_G && LAS_DE_G
  3  def   LAS_PI = LAS_DE_G
 -3  def   LAS_PI = TRUE
  2. com   LAS Optics
  3  def   LAS_X = LAS_XP[0]
  3  def   LAS_Y = LAS_YP[0]
  3  def   LAS_TH = LAS_RAY_TH[0]
  3  def   LAS_PH = LAS_RAY_PH[0]
  2. com   GR-FPP
 -3  def   GF_ANA_G = GR_RAYID==0
 -3  def   GF_ANA_G = GR_YC_G
  3  def   GF_ANA_G = GR_YC_G && GR_PHC_G && GR_AI_G && GR_BI_G
  3  com   2nd Scattering Angle
 -4  def   GF_SCAT_TH_MIN = 4.5
  4  def   GF_SCAT_TH_MIN = 5
  4  def   GF_SCAT_TH_MAX = 20
  4  def   GF_SCAT_PH_MAX = 66.8
  4  def   GF_SCAT_TH_G = gate(GF_SCAT_TH[0]*r2d, GF_SCAT_TH_MIN, GF_SCAT_TH_MAX)
  4  def   GF_SCAT_PH_L_G = gate(GF_SCAT_PH[0]*r2d, -GF_SCAT_PH_MAX, GF_SCAT_PH_MAX)
  4  def   GF_SCAT_PH_R_G = abs(GF_SCAT_PH[0]*r2d)>180-GF_SCAT_PH_MAX
  4  def   GF_SCAT_PH_U_G = gate(GF_SCAT_PH[0]*r2d, +90-GF_SCAT_PH_MAX, +90+GF_SCAT_PH_MAX)
  4  def   GF_SCAT_PH_D_G = gate(GF_SCAT_PH[0]*r2d, -90-GF_SCAT_PH_MAX, -90+GF_SCAT_PH_MAX)
  4  def   GF_SCAT_L_G = GF_SCAT_TH_G && GF_SCAT_PH_L_G
  4  def   GF_SCAT_R_G = GF_SCAT_TH_G && GF_SCAT_PH_R_G
  4  def   GF_SCAT_U_G = GF_SCAT_TH_G && GF_SCAT_PH_U_G
  4  def   GF_SCAT_D_G = GF_SCAT_TH_G && GF_SCAT_PH_D_G
 -4  def   GF_SCAT_G = GF_SCAT_L_G || GF_SCAT_R_G
  4  def   GF_SCAT_G = GF_SCAT_U_G || GF_SCAT_D_G
  4  def   GF_VX_G = gate(GF_VERTEX_X[0], -500, 600)
  4  def   GF_VY_G = gate(GF_VERTEX_Y[0], -100, 100)
  4  def   GF_VZ_G = gate(GF_VERTEX_Z[0], 1647, 1857)
  4  def   GF_VD_G = gate(GF_DIST[0], 0, 20)
  4  def   GF_VERTEX_G = GF_VX_G && GF_VY_G && GF_VZ_G && GF_VD_G
  2  def   EVENT_TRUE = TRUE
  1  com   E427 2014Nov Online
  2  com   Analysis Parameters
  3  com   Detector Configurations
  4  com   Drift time to distance
  5  com   GR
  6  com   G01 Jan-2016
  7  def   GR_WTDC_FILE = "gr_wtdc.hst" # GRAF
 -7  def   GR_WTDC_FILE = "gr_wtdcPAW.hst" # testing stuffs for the sake of the lol
 -7  def   GR_WTDC_FILE = "gr_wtdcROOT.hst" # testing stuffs for the sake of the lol
  7  def   GR_WTDC_X1 = {110,350}
  7  def   GR_WTDC_U1 = {108,352}
  7  def   GR_WTDC_X2 = {108,350}
  7  def   GR_WTDC_U2 = {110,347}
 -4. com   GR Chamber Configuration
  5  def   VDC_DX = +105.0 # E282 08nov (DSR+) offline calibration for Run#8129 (see analysis note#1 pp.92-)
  5  def   GR_VDC_TILT = {0,42.2245*d2r,0} # E282 08nov(DSR+) offline calibration for Run#8129
  4. com   GR Chamber Configuration (E387)
  5  def   VDC_DX = 0
  5  def   GR_VDC_TILT = {0,45*d2r,0}
  4. com   GR-FPP Chamber Configuration
  5  com   E282 08nov (DSR+, by offline calibration of Run#8129)
  6  def   GF3_DX = 357.69
  6  def   GF3_DY = 4.05 + 0.07
  6  def   GF4_DX = GF3_DX + 0.25 - 17.7
  6  def   GF4_DY = GF3_DY - 0.52 - 0.19
  3. com   GR Trace-Back Matrix
  4  com   Matrix for E316 09Nov (only the center, offsets, etc were adjsted based on the parameters of E282 06Nov)
  5  com   Matrix for A,B,Yc (for E282-06nov-mag2 070109, see analysis note p.44,58)
  6. com   Matrix for A (for E282-mag2 070109#1 = Standard)
  7  def   GR_AMAT_01 = { 0000,   1.61034e-02}
  7  def   GR_AMAT_02 = { 0100,  -4.17069e-01}
  7  def   GR_AMAT_03 = { 1000,   2.36614e-05}
  7  def   GR_AMAT_04 = { 0000,   -0.0235} # offset from E282 06nov
  6. com   Matrix for B (for E282-mag2 070109#2 = Standard)
  7  def   b_factor = 0.850
  7  def   GR_BMAT_01 = { 0000,  -9.65234e-03}
  7  def   GR_BMAT_02 = { 0000,  -1.07086e-03*RUN_LAS_YG}
  7  def   GR_BMAT_03 = { 0001,   4.17063e+00}
  7  def   GR_BMAT_04 = { 0010,  -1.99037e-03*b_factor}
  7  def   GR_BMAT_05 = { 1000,   6.16186e-06}
  7  def   GR_BMAT_06 = { 1000,   6.17463e-07*RUN_LAS_YG}
  7  def   GR_BMAT_07 = { 0000,  +(2.15e-04*RUN_LAS_YG)} # calculated ideal slope, see analysis note p.43
  7  def   GR_BMAT_08 = { 0000,  -0.005}
 -6. com   Matrix for YC (for E282-mag2 070109#3 = Standard)
  7  def   GR_YMAT_01 = { 0010,   1.00000e+00}
  7  def   GR_YMAT_02 = { 0000,  -3.74081e-01}
  7  def   GR_YMAT_03 = { 0000,   1.05732e+00*RUN_LAS_YG}
  7  def   GR_YMAT_04 = { 0001,   7.17335e+02}
  7  def   GR_YMAT_05 = { 0100,  -5.20327e+01}
  7  def   GR_YMAT_06 = { 0101,   9.00266e+03}
  7  def   GR_YMAT_07 = { 1000,   1.24845e-02}
  7  def   GR_YMAT_08 = { 1001,  -3.22387e+00}
  7  def   GR_YMAT_09 = { 1101,  -1.37672e+01}
 -6. com   Matrix for YC (for E316-09nov Roughly Adjusted based on E282-08nov, 20121111)
  7  def   GR_YMAT_01 = { 0010,   1.00000e+00}
  7  def   GR_YMAT_02 = { 0000,   1.54185e+00}
  7  def   GR_YMAT_03 = { 0001,   1.36192e+03}
  7  def   GR_YMAT_04 = { 0100,  -1.51211e+01}
  7  def   GR_YMAT_05 = { 0101,   4.43422e+03}
  7  def   GR_YMAT_06 = { 1000,   6.19236e-03}
  7  def   GR_YMAT_07 = { 1001,  -1.34048e+00}
  7  def   GR_YMAT_08 = { 1101,  -6.95930e+00}
  7  def   GR_YMAT_09 = { 0000,   5.61352e-01*RUN_LAS_YG}
  7  com   Matrix for YC (displacement, adjusted for Run#9063)
  8  def   GR_YMAT_10 = { 0000,  -7.78+RUN_dYC }
  8  def   GR_YMAT_11 = { 0001,   0.600e+03}
  8  def   GR_YMAT_12 = { 1001,  -1.2}
  8  def   GR_YMAT_12 = { 1000,   0.005}
 -6. com   Matrix for YC (for E316-09nov from Run9049 2nd order for X,TH 20121113)
  7  def   GR_YMAT_01 = { 0010,   1.00000e+00}
  7  def   GR_YMAT_02 = { 0000,  -5.85904e+00}
  7  def   GR_YMAT_03 = { 0001,   2.18630e+03}
  7  def   GR_YMAT_04 = { 0100,  -3.95577e+01}
  7  def   GR_YMAT_05 = { 0101,   1.13246e+04}
  7  def   GR_YMAT_06 = { 0200,   8.46496e+01}
  7  def   GR_YMAT_07 = { 0201,  -4.04091e+04}
  7  def   GR_YMAT_08 = { 1000,   1.69274e-02}
  7  def   GR_YMAT_09 = { 1001,  -4.79066e+00}
  7  def   GR_YMAT_10 = { 1101,   2.45517e+01}
  7  def   GR_YMAT_11 = { 1200,  -2.15860e+00}
  7  def   GR_YMAT_12 = { 1201,   1.20621e+03}
  7  def   GR_YMAT_13 = { 2000,  -5.58063e-06}
  7  def   GR_YMAT_14 = { 2001,   4.67959e-03}
  7  def   GR_YMAT_15 = { 2100,   3.07743e-04}
  7  def   GR_YMAT_16 = { 2101,  -1.08785e-01}
  7  def   GR_YMAT_17 = { 2200,   6.13039e-03}
  7  def   GR_YMAT_18 = { 2201,  -1.22234e+00}
  7  def   GR_YMAT_19 = { 0000,   7.931}
 -7  def   GR_YMAT_09 = { 0000,   5.61352e-01*RUN_LAS_YG}
  7  com   Matrix for YC (displacement, adjusted for Run#9063)
  8  def   GR_YMAT_10 = { 0000,  -7.78+RUN_dYC }
 -6. com   Matrix for YC (for E316-09nov from Run9049 2nd order for X 20121114)
  7  def   GR_YMAT_01 = { 0010,   1.00000e+00}
  7  def   GR_YMAT_02 = { 0000,  -5.92181e+00}
  7  def   GR_YMAT_03 = { 0001,   2.20656e+03}
  7  def   GR_YMAT_04 = { 0100,  -4.56032e+01}
  7  def   GR_YMAT_05 = { 0101,   1.38724e+04}
  7  def   GR_YMAT_06 = { 1000,   1.80252e-02}
  7  def   GR_YMAT_07 = { 1001,  -5.22284e+00}
  7  def   GR_YMAT_08 = { 1100,   1.36728e-01}
  7  def   GR_YMAT_09 = { 1101,  -4.25944e+01}
  7  def   GR_YMAT_10 = { 2000,  -8.24725e-06}
  7  def   GR_YMAT_11 = { 2001,   5.80501e-03}
  7  def   GR_YMAT_12 = { 2100,  -6.56356e-05}
  7  def   GR_YMAT_13 = { 2101,   2.41542e-04}
 -7  def   GR_YMAT_14 = { 0000,   5.61352e-01*RUN_LAS_YG}
  6. com   Matrix for YC (for E316-09nov from Run9049 1st order for all 20121114)
  7  def   GR_YMAT_01 = { 0010,   1.00000e+00}
  7  def   GR_YMAT_02 = { 0000,  -5.95045e+00}
  7  def   GR_YMAT_03 = { 0001,   2.36363e+03}
  7  def   GR_YMAT_04 = { 0100,  -4.08823e+01}
  7  def   GR_YMAT_05 = { 0101,   1.25884e+04}
  7  def   GR_YMAT_06 = { 1000,   1.46217e-02}
  7  def   GR_YMAT_07 = { 1001,  -3.75711e+00}
  7  def   GR_YMAT_08 = { 1100,   1.01238e-01}
  7  def   GR_YMAT_09 = { 1101,  -2.26667e+01}
 -7  def   GR_YMAT_10 = { 0000,   5.61352e-01*RUN_LAS_YG}
  5  com   Matrix for Xc by Tamii 01-JUNE-2006 with kinematical correction
 -6. com   no correction
  7  def   GR_XMAT_01 = { 1000,  1.000e-00 }
 -6. com   xc-th by Tamii for oct04 on 05-JUNE-2006 with kin. corr. (X:3,TH:4) up to HighEx
  7  com   Fitted from xc_ai_calib_2.dat
  7  def   GR_XMAT_01 = { 0000,  1.078e+01 }
  7  def   GR_XMAT_02 = { 1000,  1.065e+00 }
  7  def   GR_XMAT_03 = { 2000,  1.944e-04 }
  7  def   GR_XMAT_04 = { 3000,  2.285e-07 }
  7  def   GR_XMAT_05 = { 0100, -5.470e+02 }
  7  def   GR_XMAT_06 = { 1100, -2.714e+00 }
  7  def   GR_XMAT_07 = { 2100, -8.176e-03 }
  7  def   GR_XMAT_08 = { 3100, -9.993e-06 }
  7  def   GR_XMAT_09 = { 0200,  1.119e+04 }
  7  def   GR_XMAT_10 = { 1200,  4.742e+01 }
  7  def   GR_XMAT_11 = { 2200,  7.600e-02 }
  7  def   GR_XMAT_12 = { 3200,  2.384e-05 }
  7  def   GR_XMAT_13 = { 0300, -1.547e+05 }
  7  def   GR_XMAT_14 = { 1300, -5.001e+02 }
  7  def   GR_XMAT_15 = { 2300,  7.273e-01 }
  7  def   GR_XMAT_16 = { 3300,  3.089e-03 }
  7  def   GR_XMAT_17 = { 0400,  9.709e+05 }
  7  def   GR_XMAT_18 = { 1400,  2.437e+03 }
  7  def   GR_XMAT_19 = { 2400, -9.814e+00 }
  7  def   GR_XMAT_20 = { 3400, -3.270e-02 }
 -6. com   xc-th by Tamii for jul05 on 01-JUNE-2006 with kin. corr. (X:3,TH:4) up to HighEx
  7  def   GR_XMAT_01 = { 0000,  1.055e+01 }
  7  def   GR_XMAT_02 = { 1000,  1.067e+00 }
  7  def   GR_XMAT_03 = { 2000,  1.860e-04 }
  7  def   GR_XMAT_04 = { 3000,  1.873e-07 }
  7  def   GR_XMAT_05 = { 0100, -5.294e+02 }
  7  def   GR_XMAT_06 = { 1100, -2.764e+00 }
  7  def   GR_XMAT_07 = { 2100, -7.271e-03 }
  7  def   GR_XMAT_08 = { 3100, -7.490e-06 }
  7  def   GR_XMAT_09 = { 0200,  8.918e+03 }
  7  def   GR_XMAT_10 = { 1200,  3.782e+01 }
  7  def   GR_XMAT_11 = { 2200,  7.441e-02 }
  7  def   GR_XMAT_12 = { 3200,  5.507e-05 }
  7  def   GR_XMAT_13 = { 0300, -7.311e+04 }
  7  def   GR_XMAT_14 = { 1300, -1.989e+02 }
  7  def   GR_XMAT_15 = { 2300,  3.211e-02 }
  7  def   GR_XMAT_16 = { 3300,  5.192e-04 }
  7  def   GR_XMAT_17 = { 0400,  2.782e+05 }
  7  def   GR_XMAT_18 = { 1400,  1.159e+02 }
  7  def   GR_XMAT_19 = { 2400, -2.193e+00 }
  7  def   GR_XMAT_20 = { 3400, -9.012e-03 }
  6  com   xc-th for E282 oct06 mag#2 with kin. corr. (X:1,TH:4) 070207
  7  def   GR_XMAT_01 = { 0000,   0.00000e+00}
  7  def   GR_XMAT_02 = { 0100,  -4.95293e+02}
  7  def   GR_XMAT_03 = { 0200,   5.35956e+03}
  7  def   GR_XMAT_04 = { 0300,  -3.27460e+04}
  7  def   GR_XMAT_05 = { 0400,   2.02434e+05}
  7  def   GR_XMAT_06 = { 1000,   1.00000e+00}
  7  def   GR_XMAT_07 = { 1100,  -7.37824e-01}
  7  def   GR_XMAT_08 = { 1200,   2.79054e+00}
  7  def   GR_XMAT_09 = { 1300,  -2.76952e+01}
  7  def   GR_XMAT_10 = { 1400,   4.44175e+02}
  5. com   Matrix for PHC  (for E282)
  6  def   GR_PHMAT_01 = { 0000,  0.000 }
  6  def   GR_PHMAT_02 = { 0001,  1.000 }
  6  def   GR_PHMAT_03 = { 0010, -2.27E-4}
 -4  com   Matrix for E282 08Nov (DSR+)
  5  def   MAG1 = gate(RUN_N, 8000, 8064) || gate(RUN_N, 8150, 8180) && gate((RUN_N-8150)/6%1, 0.49, 0.99) # E282 08Nov Mag#1
  5  def   MAG2 = gate(RUN_N, 8064, 8150) || gate(RUN_N, 8150, 8180) && gate((RUN_N-8150)/6%1, -0.01, 0.49) # E282 08Nov Mag#2
  5  com   Matrix for A,B,Yc (for E282-08Nov-mag1 090914, see analysis note)
  6. com   Matrix for A (only the center position has been adjusted from E282-08nov-mag1 090914 = Standard)
  7  def   GR_AMAT_01 = { 0000,   4.76902e-03}
  7  def   GR_AMAT_02 = { 0100,  -3.99639e-01}
  7  def   GR_AMAT_03 = { 1000,   3.72031e-05}
  7  def   GR_AMAT_04 = { 0000,   -0.677*d2r} # offset from E282 08nov
  7  def   GR_AMAT_05 = { 1000,   -8.88e-4*d2r} # offset from E282 08nov
  6. com   Matrix for B (for E282-08nov-mag1 090914 = Standard)
  7  def   GR_BMAT_01 = { 0000,  -9.46830e-03}
  7  def   GR_BMAT_02 = { 0000,  -4.84569e-02*d2r*RUN_LAS_YG}
  7  def   GR_BMAT_03 = { 0001,   2.71873e+00}
  7  def   GR_BMAT_04 = { 0010,  -1.48682e-03}
  7  def   GR_BMAT_05 = { 0100,  -4.32182e-02}
  7  def   GR_BMAT_06 = { 0110,   2.62978e-03}
  7  def   GR_BMAT_07 = { 1000,   2.07056e-05}
  7  def   GR_BMAT_08 = { 1000,   3.01044e-05*d2r*RUN_LAS_YG}
  7  def   GR_BMAT_09 = { 1110,   1.88316e-06}
  7  def   GR_BMAT_10 = { 0000,  +(2.15e-04*RUN_LAS_YG)} # calculated ideal slope, see analysis note p.43
  6. com   Matrix for YC (for E282-08nov 090919 = Standard)
  7  def   GR_YMAT_01 = { 0010,   1.00000e+00}
  7  def   GR_YMAT_02 = { 0000,   1.54185e+00}
  7  def   GR_YMAT_03 = { 0001,   1.36192e+03}
  7  def   GR_YMAT_04 = { 0100,  -1.51211e+01}
  7  def   GR_YMAT_05 = { 0101,   4.43422e+03}
  7  def   GR_YMAT_06 = { 1000,   6.19236e-03}
  7  def   GR_YMAT_07 = { 1001,  -1.34048e+00}
  7  def   GR_YMAT_08 = { 1101,  -6.95930e+00}
  7  def   GR_YMAT_09 = { 0000,   5.61352e-01*RUN_LAS_YG}
  7  com   Matrix for YC (displacement, adjusted for Run#9062)
  8  def   GR_YMAT_10 = { 0000,  -1.833+RUN_dYC }
  6. com   Matrix for PHC  (for E282-08nov)
  7  def   GR_PHMAT_01 = { 0000, -1.274e-03 }
  7  def   GR_PHMAT_02 = { 0001,  1.000 }
  7  def   GR_PHMAT_03 = { 0010, -1.159e-04 }
  7  def   GR_PHMAT_04 = { 0000, RUN_dPHC }
  6. com   Matrix for Xc for E282-08Nov by Tamii 20-Sep-2009 with kinematical correction
 -7  com   no correction
  8  def   GR_XMAT_01 = { 1000,  1.000e-00 }
  7  com   xc-th for E282 08Nov mag#2 with kin. corr. (X:1,TH:4) 090920 No.1
  8  def   GR_XMAT_01 = { 0000,   1.37524e+00}
  8  def   GR_XMAT_02 = { 0100,  -1.57004e+02}
  8  def   GR_XMAT_03 = { 0200,   3.29586e+03}
  8  def   GR_XMAT_04 = { 0300,  -1.18995e+04}
  8  def   GR_XMAT_05 = { 0400,  -2.13240e+05}
  8  def   GR_XMAT_06 = { 1000,   1.00000e+00}
  8  def   GR_XMAT_07 = { 1100,  -4.58991e-01}
  8  def   GR_XMAT_08 = { 1200,   7.50388e+00}
  8  def   GR_XMAT_09 = { 1300,   6.55486e+00}
  8  def   GR_XMAT_10 = { 1400,  -7.90367e+02}
  7  com   xc-th for E282 08Nov mag#2 with kin. corr. (X:1,TH:4) 090920 No.2
  8  def   GR_XMAT_11 = { 0000,   6.24105e-01}
  8  def   GR_XMAT_12 = { 0100,   3.12305e+01}
  8  def   GR_XMAT_13 = { 0200,  -7.45653e+02}
  8  def   GR_XMAT_14 = { 0300,  -1.79649e+04}
  8  def   GR_XMAT_15 = { 0400,   2.99244e+05}
  8  def   GR_XMAT_16 = { 1100,   9.74611e-02}
  8  def   GR_XMAT_17 = { 1200,  -1.50990e+00}
  8  def   GR_XMAT_18 = { 1300,  -7.49231e+01}
  8  def   GR_XMAT_19 = { 1400,   4.04821e+02}
  3. com   Reaction
 -4  com   p+208Pb inelastic
  5  com   Magnetic field of the Dipoles [mT]
  6  def   GR_B = 878.702 # 0deg for 08nov mag#1 (D2) see Log Note #4 pp. 59
  2  com   Definition of Variables
  3  com   GR Optics
  4  com   Ray
  5. com   With B.G. Correction 08Nov
  6  def   GR_Y_SHIFT = 0 # identical to no correction
 -6  def   GR_Y_SHIFT = 10 # Background-1 [mm]
 -6  def   GR_Y_SHIFT = -10 # Background-2 [mm]
 -6  def   GR_Y_SHIFT = 13 # Background-1 [mm]
 -6  def   GR_Y_SHIFT = -13 # Background-2 [mm]
  6  def   GR_X = GR_XP[0]
  6  def   GR_Y = GR_YP[0]+GR_Y_SHIFT[0]
  6  def   GR_TH = GR_RAY_TH[0]
 -6  def   GR_PH = GR_RAY_PH[0]
  6  def   GR_PH = GR_RAY_PH[0]+GR_Y_SHIFT[0]*0.2e-3
  4  com   Particle momentum [MeV/c]
  5  def   GR_DP = (-88-GR_XC[0])*cos45/15138 # 08nov DSR+
  4  com   EXC
 -5  def   GR_EX_C_EX = { 0.50442, 0.88326, 4.3952e-03 } # Ex correction for 08Nov 208Pb, fitted to 06oct data (see Analysis note pp.151) Old
  5  def   GR_EX_C_EX = { 0.3355, 0.9402, -9.837e-04, 1.543e-4 } # Ex correction for 08Nov 208Pb, fitted to 06oct data 2009.12.29
  2. com   Definition of Gates
  3  com   GR Optics
  4  def   GR_PHC_G = TRUE # for E282 08Nov
  1  com   Definition of Histograms
  2  com   Analysis
  3  hist1 BLK; "Block Number"; BLOCK_N[0]; 0; 200000; 20000; "Block Number"; "Number of Events/10Block"; 
  3  hist2 BLKT; "Block Number vs Time (Hour)"; TIME[0]; int(TIME[0]); int(TIME[0])+4; 240; "Time (Hour)"; BLOCK_N[0] % 10000; 0; 10000; 200; "Block Number (mod 10000)"; 
  3  hist2 AR; "Analyzing Ratio vs Time (Hour)"; TIME[0]; int(TIME[0]); int(TIME[0])+4; 120; "Time (Hour)"; BLOCK_ANA[0]/BLOCK_N[0]*100; 0; 110; 110; "Analyzing Ratio (%)"; 
  3  hist2 PNBLK; "Process Number vs Block Number"; BLOCK_N[0]; 0; 65536; 128; "Block Number (mod 10000)"; PROC_NUM[0]; -3; 13; 16; "Child Process Number"; 
 -2. com   Input Register
  3  hist1 IPR; "Input Register 0"; IPR[0]; 0; 16384; 16384; ""; ""; 
  3  hist1 IPRBIT; "Input Register Bit"; IPRBIT; 0; 32; 32; ""; ""; 
  3  hist1 RUN; "Run Number"; RUN_N[0]; 8000; 8200; 200; "Run Number"; "Number of Events"; 
  3  hist1 SPIN; "SPIN Mode"; SPIN; 0; 10; 10; ""; ""; !EVENT_BEND
  3  hist1 BLP; "BLP Mode"; BLP; 0; 10; 10; ""; ""; !EVENT_BEND
  3  hist1 EVENT; "EVENT Mode"; EVENT; 0; 32; 32; ""; ""; !EVENT_BEND
  3  hist1 SND; "Second Level Mode"; SLEVEL; 0; 10; 10; ""; ""; !EVENT_BEND
  3  hist1 CURINT; "Current Integrator Range"; IPR[1]&0x000F; -2; 18; 20; "C.I. Range"; "Counts/ch"; 
 -2. com   Buffer Change
  3  hist1 BUFCH; "Buffer Change"; BUFCH[0]/100; -1000; 6000; 1000; "100 ch"; ""; 
  3  hist2 BUFCHBLK; "Buffer Change"; BUFCH[0]/100; -1000; 6000; 60; "BUFCH"; BLOCK_N; 0; 40000; 100; "Block Number"; 
  3  hist2 EVTBLK; "EVT vs BLK"; EVENT_N; -100; 300; 100; "Event Number"; BLOCK_N; 0; 40000; 100; "Block Number"; 
  3  hist2 EVTBLKG; "EVT vs BLK (BUFCH_Gated)"; EVENT_N; -50; 300; 350; "Event Number"; BLOCK_N; 0; 40000; 100; "Block Number"; gate(BUFCH[0]/100, -1000, 1000)
  3  hist2 EVTBLKG2; "EVT vs BLK (BUFCH_Gated)"; EVENT_N; -50; 300; 350; "Event Number"; BLOCK_N; 0; 1000; 1000; "Block Number"; gate(BUFCH[0]/100, -1000, 1000)
  3  hist2 BUFCHEVT; "Buffer Change"; BUFCH[0]/100; -200; 1000; 60; "BUFCH"; EVENT_N; 0; 30; 30; "Event Number"; 
  3  hist1 GFADCX1U; "GR-FPP ADC X1U"; GF_ADC_XU[1]; 0; 2048; 512; "ADC [ch]"; "Counts/ch"; 
  3  hist1 GFTDCX1U; "GR-FPP TDC X1U"; GF_TDC_XU[1]; 0; 2048; 512; "TDC [ch]"; "Counts/ch"; 
  3  hist1 DIFF; "DIFF"; GF_TDC_XU[1]-GR_TDC_U2[0]-1500; -500; 500; 100; "DIFF [ch]"; "Counts/ch"; 
  3  hist2 DIFFBLK; "BLK vs DIFF"; GF_TDC_XU[1]-GR_TDC_U2[0]-1500; -500; 500; 500; "DIFF [ch]"; BLOCK_N; 0; 40000; 200; "BLock Number"; 
  3  hist1 SCA0; "V830 Scaler 0 (accepted trigger)"; GR_V830[0]; 0; 1000000; 10000; "GR V830 Scaler 0"; ""; 
  3  hist1 SCA1; "V830 Scaler 1 (buffer change)"; GR_V830[1]; 0; 10000; 10000; "GR V830 Scaler 1"; ""; 
  3  hist1 SCA2; "V830 Scaler 2 (accepted clock)"; GR_V830[2]; 0; 1000000; 10000; "GR V830 Scaler 1"; ""; 
  3  hist2 BLKSCA; "V830 Scaler 1"; BLOCK_N; 0; 10000; 100; "Block Number"; GR_V830[1]; 0; 10000; 100; "GR V830 Scaler 1"; 
  3  hist2 SCABLK; "Block Number vs V830 Scaler Diff"; BLOCK_N[0] - GR_V830[1]; -10; 50; 60; "Block Number - GR V830 Scaler 1"; BLOCK_N; 0; 40000; 1000; "Block Number"; 
  3  hist2 SCABLK2; "Block Number vs V830 Scaler Diff"; BLOCK_N[0] - GR_V830[1]; -10; 50; 60; "Block Number - GR V830 Scaler 1"; BLOCK_N; 0; 1000; 1000; "Block Number"; 
  3  hist2 SCABLK3; "Block Number vs V830 Scaler Diff"; BLOCK_N[0] - GR_V830[1]; -10; 50; 60; "Block Number - GR V830 Scaler 1"; EVENT_N; 0; 300; 300; "Event Number"; 
 -2. com   Event Correlation
  3  def   N_EVENT_COR = 100
  3  def   GR_COR_A = GR_TPOS[2]
  3  def   GR_COR_B = GR_XP[3]*0.045-14
  3  hist2 GCOR; "Event Correlation"; GR_COR_X; 0; 100; 100; "Correlation A-B"; GR_COR_Y; -N_EVENT_COR; N_EVENT_COR; N_EVENT_COR*2; "Evt_N(A)-Evt_N(B)"; 
 -2. com   Event Correlation
  3  def   N_EVENT_COR = 100
  3  def   GR_COR_A = GF_TDC_XU[1]
  3  def   GR_COR_B = GR_TDC_U2[0]
  3  hist2 GCOR; "Event Correlation"; GR_COR_X; -2000; 2000; 100; "Correlation A-B"; GR_COR_Y; -N_EVENT_COR; N_EVENT_COR; N_EVENT_COR*2; "Evt_N(A)-Evt_N(B)"; 
 -3  hist2 GCOR; "Event Correlation"; GR_COR_A; 0; 2000; 100; "Correlation A"; GR_COR_B; 0; 2000; 100; "Correlation B"; 
  2  com   GR
  3  com   GR ADC
  5  hist1 GADC1L; "GR ADC 1L"; GR_ADC[1]; 0; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN
  5  hist1 GADC1R; "GR ADC 1R"; GR_ADC[2]; 0; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN
  5  hist1 GADC2L; "GR ADC 2L"; GR_ADC[3]; 0; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN
  5  hist1 GADC2R; "GR ADC 2R"; GR_ADC[4]; 0; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN
 -5  hist1 GADC3L; "GR ADC 3L"; GR_ADC[5]; 0; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN
 -5  hist1 GADC3R; "GR ADC 3R"; GR_ADC[6]; 0; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN
 -5  hist1 GADC1L; "GR ADC 1L (TDC-Gated)"; GR_ADC[1]; 1; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_TDC[1]
 -5  hist1 GADC1R; "GR ADC 1R (TDC-Gated)"; GR_ADC[2]; 1; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_TDC[2]
 -5  hist1 GADC2L; "GR ADC 2L (TDC-Gated)"; GR_ADC[3]; 1; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_TDC[3]
 -5  hist1 GADC2R; "GR ADC 2R (TDC-Gated)"; GR_ADC[4]; 1; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_TDC[4]
 -4. com   GR ADC VDC-Gated
 -5  hist1 GADC1LG; "GR ADC 1L VDC-Gated"; GR_ADC[1]; 1; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_RAYID[0]==0
 -5  hist1 GADC1RG; "GR ADC 1R VDC-Gated"; GR_ADC[2]; 1; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_RAYID[0]==0
 -5  hist1 GADC2LG; "GR ADC 2L VDC-Gated"; GR_ADC[3]; 1; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_RAYID[0]==0
 -5  hist1 GADC2RG; "GR ADC 2R VDC-Gated"; GR_ADC[4]; 1; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_RAYID[0]==0
 -5  hist1 GADC3LG; "GR ADC 3L VDC-Gated"; GR_ADC[5]; 1; 2048; 512; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_RAYID[0]==0
 -4. com   GR ADC Correlation
 -5  hist2 GADC1LR; "GR ADC 1R vs 1L"; GR_ADC[1]; 1; 2048; 64; "1L ADC [ch]"; GR_ADC[2]; 1; 2048; 64; "1R ADC [ch]"; EVENT_GR_COIN
 -5  hist2 GADC2LR; "GR ADC 2R vs 2L"; GR_ADC[3]; 1; 2048; 64; "2L ADC [ch]"; GR_ADC[4]; 1; 2048; 64; "2R ADC [ch]"; EVENT_GR_COIN
 -5  hist2 GADC1LRG; "GR ADC 1R vs 1L VDC-Gated"; GR_ADC[1]; 1; 2048; 64; "1L ADC [ch]"; GR_ADC[2]; 1; 2048; 64; "1R ADC [ch]"; EVENT_GR_COIN && GR_RAYID[0]==0
 -5  hist2 GADC2LRG; "GR ADC 2R vs 2L VDC-GAted"; GR_ADC[3]; 1; 2048; 64; "2L ADC [ch]"; GR_ADC[4]; 1; 2048; 64; "2R ADC [ch]"; EVENT_GR_COIN && GR_RAYID[0]==0
  4  com   GR DE
  5  hist1 GDE1; "GR DE 1"; GR_MADC[1]; 0; 1500; 500; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN
  5  hist1 GDE2; "GR DE 2"; GR_MADC[2]; 0; 1500; 500; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN
 -5  hist1 GDE3; "GR DE 3"; GR_MADC[3]; 0; 1500; 500; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN
  5  hist2 GDE12; "GR DE 2 vs DE 1"; GR_MADC[1]; 0; 600; 60; "DE 1 [ch]"; GR_MADC[2]; 0; 600; 60; "DE 3 [ch]"; EVENT_GR_COIN
  5  hist2 GDE12RF; "GR DE 2 vs DE 1 (RFGated)"; GR_MADC[1]; 0; 600; 60; "DE 1 [ch]"; GR_MADC[2]; 0; 600; 60; "DE 3 [ch]"; EVENT_GR_COIN && GR_RFGate
 -5  hist2 GDE13; "GR DE 3 vs DE 1"; GR_MADC[1]; 0; 600; 60; "DE 1 [ch]"; GR_MADC[3]; 0; 600; 60; "DE 3 [ch]"; EVENT_GR_COIN
 -5  hist2 GDE23; "GR DE 3 vs DE 2"; GR_MADC[2]; 0; 600; 60; "DE 2 [ch]"; GR_MADC[3]; 0; 600; 60; "DE 3 [ch]"; EVENT_GR_COIN
  5  hist2 GDE12G; "GR DE 2 vs DE 1 (Gated by PI)"; GR_MADC[1]; 0; 600; 60; "DE 1 [ch]"; GR_MADC[2]; 0; 600; 60; "DE 2 [ch]"; EVENT_GR_COIN && GR_PI
 -5  hist1 GDE1T; "GR DE 1 (PI-Gated)"; GR_MADC[1]; 1; 1500; 500; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_PI
  4  com   GR DE VDC-Gated
  5  hist1 GDE1G; "GR DE 1 VDC-Gated"; GR_MADC[1]; 1; 1500; 500; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_RAYID[0]==0
  5  hist1 GDE2G; "GR DE 2 VDC-Gated"; GR_MADC[2]; 1; 1500; 500; "ADC [ch]"; "Counts/ch"; EVENT_GR_COIN && GR_RAYID[0]==0
  5  com   GR ADC vs X
  5  hist2 GXADC1L; "GR ADC 1L vs X"; GR_X[0]; -600; 600; 100; ""; GR_ADC[1]; 0; 1000; 100; ""; EVENT_GR_COIN
  5  hist2 GXADC1R; "GR ADC 1R vs X"; GR_X[0]; -600; 600; 100; ""; GR_ADC[2]; 0; 1000; 100; ""; EVENT_GR_COIN
  5  hist2 GXADC2L; "GR ADC 2L vs X"; GR_X[0]; -600; 600; 100; ""; GR_ADC[3]; 0; 1000; 100; ""; EVENT_GR_COIN
  5  hist2 GXADC2R; "GR ADC 2R vs X"; GR_X[0]; -600; 600; 100; ""; GR_ADC[4]; 0; 1000; 100; ""; EVENT_GR_COIN
  5  hist2 GXDE1; "GR DE1 vs X"; GR_X[0]; -600; 600; 100; ""; GR_MADC[1]; 0; 1000; 100; ""; EVENT_GR_COIN
  5  hist2 GXDE2; "GR DE2 vs X"; GR_X[0]; -600; 600; 100; ""; GR_MADC[2]; 0; 1000; 100; ""; EVENT_GR_COIN
  5  hist2 GXDE2RF; "GR DE2 vs X (RF-Gated)"; GR_X[0]; -600; 600; 100; ""; GR_MADC[2]; 0; 1000; 100; ""; EVENT_GR_COIN && GR_PI_RF_3He
 -5  hist2 GXADC1LG; "GR ADC 1L vs X"; GR_X[0]; -400; 400; 200; "GR X [mm]"; GR_ADC[1]; 0; 1000; 100; ""; EVENT_GR_COIN && GR_TDC[1] && GR_RAYID[0]==0
 -5  hist2 GXADC1RG; "GR ADC 1R vs X"; GR_XP[3]; -600; 600; 50; ""; GR_ADC[2]; 0; 1000; 100; ""; EVENT_GR_COIN && GR_TDC[2] && GR_RAYID[0]==0
 -5  hist2 GXADC2LG; "GR ADC 2L vs X"; GR_XP[3]; -600; 600; 50; ""; GR_ADC[3]; 0; 1000; 100; ""; EVENT_GR_COIN && GR_TDC[3] && GR_RAYID[0]==0
 -5  hist2 GXADC1LX; "GR ADC 1L vs X"; GR_WIRER_X1; 0; 192; 192; "GR Wire X1"; GR_ADC[1]; 1; 2048; 64; "1L ADC [ch]"; EVENT_GR_COIN
 -5  hist2 GXADC2RX; "GR ADC 2R vs X"; GR_WIRER_X1; 0; 192; 192; "GR Wire X1"; GR_ADC[4]; 0; 1000; 100; ""; EVENT_GR_COIN
 -5  hist2 GXADC2RX; "GR ADC 2R vs X"; GR_WIRER_X1; 0; 192; 192; "GR Wire X1"; GR_ADC[4]; 0; 1000; 100; ""; EVENT_GR_COIN
 -5  hist2 GXADC2RX; "GR ADC 2R vs X"; GR_WIRER_X1; 0; 192; 192; "GR Wire X1"; GR_ADC[4]; 0; 1000; 100; ""; EVENT_GR_COIN
 -5  hist2 GXADC3LG; "GR ADC 3L vs X"; GR_XP[3]; -600; 600; 50; ""; GR_ADC[5]; 0; 1000; 100; ""; EVENT_GR_COIN && GR_TDC[5] && GR_RAYID[0]==0
 -5  hist2 GXADC3RG; "GR ADC 3R vs X"; GR_XP[3]; -600; 600; 50; ""; GR_ADC[6]; 0; 1000; 100; ""; EVENT_GR_COIN && GR_TDC[6] && GR_RAYID[0]==0
 -5  hist2 GXDE1G; "GR DE1 vs X"; GR_XP[3]; -600; 600; 50; "X"; GR_MADC[1]; 0; 1000; 100; "DE1"; EVENT_GR_COIN && GR_TDC[1] && GR_TDC[2] && GR_RAYID[0]==0
 -5  hist2 GXDE2G; "GR DE2 vs X"; GR_XP[3]; -600; 600; 50; "X"; GR_MADC[2]; 0; 1000; 100; "DE2"; EVENT_GR_COIN && GR_TDC[3] && GR_TDC[4] && GR_RAYID[0]==0
 -5  hist2 GXDE3G; "GR DE3 vs X"; GR_XP[3]; -600; 600; 50; "X"; GR_MADC[3]; 0; 1000; 100; "DE3"; EVENT_GR_COIN && GR_TDC[5] && GR_TDC[6] && GR_RAYID[0]==0
  3  com   GR TDC
  4  com   GR TDC
  5  hist1 GTDC1L; "GR TDC 1L"; GR_TDC[1]; 0; 2048; 512; ""; ""; 
  5  hist1 GTDC1R; "GR TDC 1R"; GR_TDC[2]; 0; 2048; 512; ""; ""; 
  5  hist1 GTDC2L; "GR TDC 2L"; GR_TDC[3]; 0; 2048; 512; ""; ""; 
  5  hist1 GTDC2R; "GR TDC 2R"; GR_TDC[4]; 0; 2048; 512; ""; ""; 
 -5  hist1 GTDC3L; "GR TDC 3L"; GR_TDC[5]; 0; 2048; 512; ""; ""; 
 -5  hist1 GTDC3R; "GR TDC 3R"; GR_TDC[6]; 0; 2048; 512; ""; ""; 
  4  com   GR TDC vs X
  5  hist2 GXTDC1L; "GR TDC 1L vs X3"; GR_XP[3]; -600; 600; 50; ""; GR_TDC[1]; 0; 2048; 64; ""; EVENT_GR_COIN
  5  hist2 GXTDC1R; "GR TDC 1R vs X3"; GR_XP[3]; -600; 600; 50; ""; GR_TDC[2]; 0; 2048; 64; ""; EVENT_GR_COIN
  5  hist2 GXTPOS2; "GR TPOS 2 vs X3"; GR_XP[3]; -600; 600; 50; ""; GR_TPOS[2]; -200; 50; 100; ""; EVENT_GR_COIN
  5  hist2 GXTPOS1; "GR TPOS 1 vs X3"; GR_XP[3]; -600; 600; 50; ""; GR_TPOS[1]; -200; 50; 100; ""; EVENT_GR_COIN
 -5  hist2 GPOSX2TPOS2; "GR TPOS 2 vs POS X2"; GR_POS_X2; 0; 200; 50; ""; GR_TPOS[2]; -50; 50; 100; ""; EVENT_GR_COIN
 -5  hist2 GTPOSC2POSX2; "GR POS X2 vs TPOSC2"; GR_TPOSC2; -50; 50; 100; ""; GR_POS_X2; 0; 200; 50; ""; EVENT_GR_COIN
 -5  hist2 GTPOSCX; "GR X vs TPOSC"; GR_TPOSC; -25; 25; 100; ""; GR_XP[3]; -600; 600; 50; ""; EVENT_GR_COIN
 -5  hist2 GTPOSCBLK; "BLK vs GR TPOSC"; GR_TPOSC; -25; 25; 100; ""; BLOCK_N[0]; 0; 40000; 100; ""; EVENT_GR_COIN
 -5  hist2 GTPOSCBLK; "BLK vs GR TPOSC"; GR_TPOSC; -25; 25; 100; ""; BLOCK_N[0]; 24000; 25000; 100; ""; EVENT_GR_COIN
 -5  hist2 GTPOSCBLK; "BLK vs GR TPOSC"; GR_TPOSC; -25; 25; 100; ""; BLOCK_N[0]; 24400; 24600; 200; ""; EVENT_GR_COIN
 -5  hist2 GTPOSC2BLK; "BLK vs GR TPOSC2"; GR_TPOSC2; -300; 300; 100; ""; BLOCK_N[0]; 0; 40000; 100; ""; EVENT_GR_COIN
 -5  hist2 GTDC1; "GR TDC 1R vs 1L"; GR_TDC[1]; 900; 1050; 100; "GR TDC 1L [ch]"; GR_TDC[2]; 830; 980; 100; "GR TDC 1R [ch]"; EVENT_GR_COIN
  4  com   GR RF
  5  hist1 GRF; "GR RF"; GR_RF[0]; 1; 2048; 512; ""; ""; EVENT_GR_COIN
 -5  hist1 GRFPI; "GR RF (PI Gated)"; GR_RF[0]; 1; 2048; 512; ""; ""; EVENT_GR_COIN && GR_PI_ADC
  5  hist1 GRFT; "GR RF T"; GR_RF[0]; 1; 2048; 512; ""; ""; EVENT_GR_COIN && GR_RFGate
  5  hist1 GRFC; "GR RFC"; GR_RFC[0]; 1; 2048; 512; "GR RFC [ch]"; "Counts/4ch"; EVENT_GR_COIN
  5  hist1 GRFCG; "GR RFC VDC Gate"; GR_RFC[0]; 1; 2048; 512; "GR RFC [ch]"; "Counts/4ch"; EVENT_GR_COIN && GR_RAYID==0
 -5  hist2 GRFX; "GR X vs RF"; GR_RF[0]; 1; 2048; 128; "GR RF [ch]"; GR_X[0]; -600; 600; 120; "GR X [mm]"; EVENT_GR_COIN
 -5  hist2 GRFCX; "GR X vs RFC"; GR_RFC[0]; 1; 2048; 128; "GR RFC [ch]"; GR_X[0]; -600; 600; 120; "GR X [mm]"; EVENT_GR_COIN
 -5  hist2 GRFCTH; "GR TH vs RFC"; GR_RFC[0]; 1; 2048; 128; "GR RFC [ch]"; GR_TH[0]*r2d; -5; 5; 100; "GR TH [deg]"; EVENT_GR_COIN
  4  com   GR TPOS
 -5  hist2 GADC1LTOPS2; "GR L1 vs TPOS 1"; GR_TPOS[1]; -200; 200; 100; "GR TPOS 1"; GR_ADC[1]; 0; 2000; 100; "DE 1 [ch]"; 
  5  hist2 GTPOS1ADC1L; "GR adc1l vs TPOS 1"; GR_TPOS[1]; -200; 200; 100; "GR TPOS 1"; GR_ADC[1]; 0; 500; 100; "ADC 1l [ch]"; 
  5  hist2 GTPOS1ADC1R; "GR adc1r vs TPOS 1"; GR_TPOS[1]; -200; 200; 100; "GR TPOS 1"; GR_ADC[2]; 0; 500; 100; "ADC 1r [ch]"; 
  5  hist2 GTPOS1ADC2L; "GR adc2l vs TPOS 1"; GR_TPOS[1]; -200; 200; 100; "GR TPOS 1"; GR_ADC[3]; 0; 500; 100; "ADC 2l [ch]"; 
  5  hist2 GTPOS1ADC2R; "GR adc2r vs TPOS 1"; GR_TPOS[1]; -200; 200; 100; "GR TPOS 1"; GR_ADC[4]; 0; 500; 100; "ADC 2R[ch]"; 
  5  hist2 GTPOS1DE1; "GR DE1 vs TPOS 1"; GR_TPOS[1]; -200; 200; 100; "GR TPOS 1"; GR_MADC[1]; 0; 2000; 100; "DE 1 [ch]"; 
  5  hist2 GTPOS2DE2; "GR DE2 vs TPOS 2"; GR_TPOS[2]; -200; 200; 100; "GR TPOS 2"; GR_MADC[2]; 0; 2000; 100; "DE 2 [ch]"; 
  5  hist1 GTPOS1_PI; "GR TDC POS 1 PIGated"; GR_TPOS[1]; -200; 200; 400; ""; ""; GR_PI && GR_RFGate
  5  hist1 GTPOS1; "GR TDC POS 1"; GR_TPOS[1]; -200; 200; 400; ""; ""; 
  5  hist1 GTPOS2; "GR TDC POS 2"; GR_TPOS[2]; -200; 200; 400; ""; ""; 
  4  com   GR PI
  5  hist2 GDE1RF; "GR DE 1 vs GR RF"; GR_RF[0]; 200; 1400; 100; "RF [ch]"; GR_MADC[1]; 0; 500; 50; "DE 1 [ch]"; EVENT_GR_COIN
  5  hist2 GDE2RF; "GR DE 2 vs GR RF"; GR_RF[0]; 200; 1400; 100; "RF [ch]"; GR_MADC[2]; 0; 500; 50; "DE 2 [ch]"; EVENT_GR_COIN
  5  hist2 GDE2RFG; "GR DE 2 vs GR RF (VDC-Gated)"; GR_RF[0]; 0; 2048; 64; "RF [ch]"; GR_MADC[2]; 0; 2048; 64; "DE 2 [ch]"; EVENT_GR_COIN && GR_RAYID==0
 -5  hist2 GDE1RFC; "GR DE 1 vs GR RFC"; GR_RFC[0]; 200; 1300; 110; "GR RFC [ch]"; GR_MADC[1]; 0; 1000; 50; "GR DE 1"; EVENT_GR_COIN && GR_RAYID==0
 -5  hist2 GDE2RFC; "GR DE 2 vs GR RFC"; GR_RFC[0]; 200; 1300; 110; "GR RFC [ch]"; GR_MADC[2]; 0; 1000; 50; "GR DE 2"; EVENT_GR_COIN && GR_RAYID==0
 -5  hist2 GDE3RFC; "GR DE 3 vs GR RFC"; GR_RFC[0]; 200; 1300; 110; "GR RFC [ch]"; GR_MADC[3]; 0; 1000; 50; "GR DE 3"; EVENT_GR_COIN && GR_RAYID==0
 -5  hist2 GDE1RFCP; "GR DE 1 vs GR RFC (PI)"; GR_RFC[0]; 0; 2048; 64; "GR RFC [ch]"; GR_MADC[1]; 0; 2048; 64; "GR DE 1"; EVENT_GR_COIN && GR_RAYID==0 && GR_PI
  3  com   GR VDC
  4  hist1 GWIREMX1; "GR WIRE X1 (Multi Hit)"; GR_WIRE_X1; 0; 192; 192; ""; "";
  4  hist1 GWIREMU1; "GR WIRE U1 (Multi Hit)"; GR_WIRE_U1; 0; 192; 192; ""; ""; 
  4  hist1 GWIREMX2; "GR WIRE X2 (Multi Hit)"; GR_WIRE_X2; 0; 192; 192; ""; ""; 
  4  hist1 GWIREMU2; "GR WIRE U2 (Multi Hit)"; GR_WIRE_U2; 0; 192; 192; ""; ""; 
 -4  hist1 GWIREBASE; "GR WIRE BASE"; GR_WIRE_BASE; 0; 192; 192; ""; ""; 
 -4  hist1 GTDCBASE; "GR TDC BASE"; GR_TDC_BASE; 0; 1024; 1024; ""; ""; 
 -4  hist1 GWIREX1LowBin; "GR WIRE X1 Lob Bin"; GR_WIRER_X1; 0; 192; 192; ""; ""; 
  4  hist1 GWIREX1; "GR WIRE X1"; GR_WIRER_X1; 0; 192; 192; ""; ""; 
  4  hist1 GWIREU1; "GR WIRE U1"; GR_WIRER_U1; 0; 206; 206; ""; ""; 
  4  hist1 GWIREX2; "GR WIRE X2"; GR_WIRER_X2; 0; 192; 192; ""; ""; 
  4  hist1 GWIREU2; "GR WIRE U2"; GR_WIRER_U2; 0; 206; 206; ""; ""; 
 -4  hist2 GWIREX1TPOS1; "GR TPOS1 vs WIRE X1"; GR_WIRER_X1; 0; 192; 192; "GR Wire X1"; GR_TPOS[1]; -200; 200; 100; "GR TPOS 1"; 
 -4  hist2 GWIREU1TPOS1; "GR TPOS1 vs WIRE U1"; GR_WIRER_U1; 0; 208; 208; "GR Wire U1"; GR_TPOS[1]; -200; 200; 100; "GR TPOS 1"; 
 -4  hist2 GWIREX2TPOS1; "GR TPOS1 vs WIRE X2"; GR_WIRER_X2; 0; 192; 192; "GR Wire X2"; GR_TPOS[1]; -200; 200; 100; "GR TPOS 1"; 
 -4  hist2 GWIREU2TPOS1; "GR TPOS1 vs WIRE U2"; GR_WIRER_U2; 0; 208; 208; "GR Wire U2"; GR_TPOS[1]; -200; 200; 100; "GR TPOS 1"; 
 -4  hist2 GWIREX1TPOS2; "GR TPOS1 vs WIRE X1"; GR_WIRER_X1; 0; 192; 192; "GR Wire X1"; GR_TPOS[2]; -200; 200; 100; "GR TPOS 2"; 
 -4  hist1 V1190HITL; "V1190 HIT Channel (Leading Edge)"; V1190_RAWL_CH; 0; 1024; 1024; "V1190 Channel"; "Counts/ch"; 
 -4  hist1 V1190HITT; "V1190 HIT Channel (Trailing Edge)"; V1190_RAWT_CH; 0; 1024; 1024; "V1190 Channel"; "Counts/ch"; 
 -4  hist1 GTDCX1G; "GR TDC X1 PI gated"; GR_TDCR_X1; 0; 500; 500; ""; ""; GR_PI
  4  hist1 GTDCX1; "GR TDC X1"; GR_TDCR_X1; 0; 500; 500; ""; ""; 
  4  hist1 GTDCU1; "GR TDC U1"; GR_TDCR_U1; 0; 500; 500; ""; ""; 
  4  hist1 GTDCX2; "GR TDC X2"; GR_TDCR_X2; 0; 500; 500; ""; ""; 
  4  hist1 GTDCU2; "GR TDC U2"; GR_TDCR_U2; 0; 500; 500; ""; ""; 
 -4  hist1 RAYID; "All tracks"; GR_RAYID; 0; 16; 16; ""; "";
 -4  hist1 RAYID0; "Good Track"; GR_RAYID; 0; 16; 16; ""; ""; GR_RAYID==0
 -4  hist1 RAYID1; "X1 not good"; GR_RAYID; 0; 16; 16; ""; ""; GR_RAYID==1||GR_RAYID==3||GR_RAYID==5||GR_RAYID==9||GR_RAYID==7||GR_RAYID==11||GR_RAYID==13||GR_RAYID==15
 -4  hist1 RAYID2; "U1 not good"; GR_RAYID; 0; 16; 16; ""; ""; GR_RAYID==4||GR_RAYID==5||GR_RAYID==6||GR_RAYID==12||GR_RAYID==7||GR_RAYID==13||GR_RAYID==14||GR_RAYID==15
 -4  hist1 RAYID4; "X2 not good"; GR_RAYID; 0; 16; 16; ""; ""; GR_RAYID==2||GR_RAYID==3||GR_RAYID==6||GR_RAYID==10||GR_RAYID==7||GR_RAYID==11||GR_RAYID==14||GR_RAYID==15
 -4  hist1 RAYID8; "U2 not good"; GR_RAYID; 0; 16; 16; ""; ""; GR_RAYID==8||GR_RAYID==9||GR_RAYID==10||GR_RAYID==12||GR_RAYID==11||GR_RAYID==13||GR_RAYID==14||GR_RAYID==15
 -4  hist1 BASE0; "V1190 Base-0"; V1190BASE[0]/100; -1000; 6000; 1000; "100 ch"; ""; 
 -4  hist1 BASE1; "V1190 Base-1"; V1190BASE[1]/100; -1000; 6000; 1000; "100 ch"; ""; 
 -4  hist1 BASE2; "V1190 Base-2"; V1190BASE[2]/100; -1000; 6000; 1000; "100 ch"; ""; 
 -4  hist1 BASE3; "V1190 Base-3"; V1190BASE[3]/100; -1000; 6000; 1000; "100 ch"; ""; 
 -4  hist1 BASE4; "V1190 Base-4"; V1190BASE[4]/100; -1000; 6000; 1000; "100 ch"; ""; 
 -4  hist1 BASE5; "V1190 Base-5"; V1190BASE[5]/100; -1000; 6000; 1000; "100 ch"; ""; 
 -4  hist1 BASE6; "V1190 Base-6"; V1190BASE[6]/100; -1000; 6000; 1000; "100 ch"; ""; 
 -4  hist1 BASE7; "V1190 Base-7"; V1190BASE[7]/100; -1000; 6000; 1000; "100 ch"; ""; 
  4  hist2 GWTDCX1; "GR VDC TDC X1 vs WIRE X1"; GR_WIRER_X1; 0; 192; 192; ""; GR_TDC_X1; 0; 500; 50; ""; 
  4  hist2 GWTDCU1; "GR VDC TDC U1 vs WIRE U1"; GR_WIRER_U1; 0; 208; 208; ""; GR_TDC_U1; 0; 500; 50; ""; 
  4  hist2 GWTDCX2; "GR VDC TDC X2 vs WIRE X2"; GR_WIRER_X2; 0; 192; 192; ""; GR_TDC_X2; 0; 500; 50; ""; 
  4  hist2 GWTDCU2; "GR VDC TDC U2 vs WIRE U2"; GR_WIRER_U2; 0; 208; 208; ""; GR_TDC_U2; 0; 500; 50; ""; 
 -4  hist2 GTDCX1PUL1; "GR VDC TDC X1 vs PUL1"; GR_TDC_X1; -2000; 2000; 400; ""; PULSER[1]; 0; 40000; 400; ""; 
 -4  hist2 GTDCX2PUL4; "GR VDC TDC X2 vs PUL4"; GR_TDC_X2; -2000; 2000; 400; ""; PULSER[4]; 0; 40000; 400; ""; 
  4  hist1 GDLX1; "GR Drift Length X1"; GR_DRIFT_X1; -0.5; 1.5; 200; ""; ""; 
  4  hist1 GDLU1; "GR Drift Length U1"; GR_DRIFT_U1; -0.5; 1.5; 200; ""; ""; 
  4  hist1 GDLX2; "GR Drift Length X2"; GR_DRIFT_X2; -0.5; 1.5; 200; ""; ""; 
  4  hist1 GDLU2; "GR Drift Length U2"; GR_DRIFT_U2; -0.5; 1.5; 200; ""; ""; 
 -4  hist2 GNHITX1TIME; "NHITX1 vs TIME"; TIME[0]; int(TIME[0]); int(TIME[0])+1; 240; "TIME (hour)"; GR_NHIT_X1; 0; 32; 32; "GR Eire Hit X1"; EVENT_GR_COIN
  4  hist2 GNHITX1BLK; "NHITX1 vs BLK"; BLOCK_N[0]; 0; 40000; 100; "BLK "; GR_NHIT_X1; 0; 32; 32; "GR Eire Hit X1"; EVENT_GR_COIN && GR_PI
 -4  hist2 GNHITX1BLKG; "NHITX1 vs BLK "; BLOCK_N[0]; 0; 30000; 100; "BLK "; GR_NHIT_X1; 0; 32; 32; "GR Eire Hit X1"; EVENT_GR_COIN && GR_PI && GR_BLK
  4  hist1 GNHITX1G; "GR NHIT X1 PI gated"; GR_NHIT_X1; 0; 32; 32; ""; ""; EVENT_GR_COIN && GR_PI
  4  hist1 GNHITX1; "GR NHIT X1"; GR_NHIT_X1; 0; 32; 32; ""; ""; EVENT_GR_COIN
  4  hist1 GNHITU1; "GR NHIT U1"; GR_NHIT_U1; 0; 32; 32; ""; ""; EVENT_GR_COIN
  4  hist1 GNHITX2; "GR NHIT X2"; GR_NHIT_X2; 0; 32; 32; ""; ""; EVENT_GR_COIN
  4  hist1 GNHITU2; "GR NHIT U2"; GR_NHIT_U2; 0; 32; 32; ""; ""; EVENT_GR_COIN
 -4  hist1 GNCLUSTX1; "GR NCLUST X1"; GR_NCLUST_X1; 0; 10; 10; ""; ""; EVENT_GR_COIN
 -4  hist1 GNCLUSTU1; "GR NCLUST U1"; GR_NCLUST_U1; 0; 10; 10; ""; ""; EVENT_GR_COIN
 -4  hist1 GNCLUSTX2; "GR NCLUST X2"; GR_NCLUST_X2; 0; 10; 10; ""; ""; EVENT_GR_COIN
 -4  hist1 GNCLUSTU2; "GR NCLUST U2"; GR_NCLUST_U2; 0; 10; 10; ""; ""; EVENT_GR_COIN
 -4  hist1 GCSX1; "GR CLUST SIZE X1"; GR_CLUSTSZ_X1; 0; 32; 32; ""; ""; 
 -4  hist1 GCSU1; "GR CLUST SIZE U1"; GR_CLUSTSZ_U1; 0; 32; 32; ""; ""; 
 -4  hist1 GCSX2; "GR CLUST SIZE X2"; GR_CLUSTSZ_X2; 0; 32; 32; ""; ""; 
 -4  hist1 GCSU2; "GR CLUST SIZE U2"; GR_CLUSTSZ_U2; 0; 32; 32; ""; ""; 
  4  hist1 GPOSX1; "GR POS X1"; GR_POS_X1; 0; 192; 192; ""; ""; 
  4  hist1 GPOSU1; "GR POS U1"; GR_POS_U1; 0; 208; 208*10; ""; ""; 
  4  hist1 GPOSX2; "GR POS X2"; GR_POS_X2; 0; 192; 192*10; ""; ""; 
  4  hist1 GPOSU2; "GR POS U2"; GR_POS_U2; 0; 208; 208*10; ""; ""; 
 -4  hist1 GGRADX1; "GR GRAD X1"; GR_GRAD_X1*r2d+45; -30; 30; 60; ""; ""; 
 -4  hist1 GPOSX1C; "GR GRAD POSX1C"; GR_POS_X1*6+GR_GRAD_X1*2.5*r2d+45; 0; 1200; 1200; "GR POS X1 [mm]"; ""; 
 -4  hist2 GXTHX1C; "GR GRAD X1C"; GR_POS_X1*6+GR_GRAD_X1*2.5*r2d+45; 0; 1200; 200; "GR POS X1 [mm]"; GR_GRAD_X1*r2d+45; -30; 30; 60; "GR GRAD X1 [deg]"; 
 -4  hist2 GXTHX1; "GR GRAD X1"; GR_POS_X1*6; 0; 1200; 200; "GR POS X1 [mm]"; GR_GRAD_X1*r2d+45; -30; 30; 60; "GR GRAD X1 [deg]"; 
 -4  hist2 GPOSX1X2; "GR POS X2 vs X1"; GR_POS_X1; 0; 192; 48; "GR POS X1"; GR_POS_X2; 0; 192; 48; "GR POS X2"; 
 -4  hist2 GPOSU1U2; "GR POS U2 vs U1"; GR_POS_U1; 0; 192; 48; "GR POS U1"; GR_POS_U2; 0; 192; 48; "GR POS U2"; 
 -4  hist2 GPOSX1U1; "GR POS U1 vs X1"; GR_POS_X1; 0; 192; 48; "GR POS X1"; GR_POS_U1; 0; 192; 48; "GR POS U1"; 
 -4  hist2 GPOSX2U2; "GR POS U2 vs X2"; GR_POS_X2; 0; 192; 48; "GR POS X2"; GR_POS_U2; 0; 192; 48; "GR POS U2"; 
 -4  hist2 GRESX10; "GR Resolution X1-0"; (GR_POS_X1[0]-GR_WIRER_X1[0])*GR_PL_X1[3]*tan(GR_VDC_TILT[1]+GR_TH[0])/GR_PL_X1[5]; -1.2; 1.2; 120; "GR Pos Tracked"; GR_TDCR_X1[0]; 0; 400; 100; "GR TDC X1"; gate(GR_POS_X1[0], 50, 150)
 -4  hist2 GRESX11; "GR Resolution X1-1"; (GR_POS_X1[0]-GR_WIRER_X1[1])*GR_PL_X1[3]*tan(GR_VDC_TILT[1]+GR_TH[0])/GR_PL_X1[5]; -1.2; 1.2; 120; "GR Pos Tracked"; GR_TDCR_X1[1]; 0; 400; 100; "GR TDC X1"; gate(GR_POS_X1[0], 50, 150)
 -4  hist2 GRESX12; "GR Resolution X1-2"; (GR_POS_X1[0]-GR_WIRER_X1[2])*GR_PL_X1[3]*tan(GR_VDC_TILT[1]+GR_TH[0])/GR_PL_X1[5]; -1.2; 1.2; 120; "GR Pos Tracked"; GR_TDCR_X1[2]; 0; 400; 100; "GR TDC X1"; gate(GR_POS_X1[0], 50, 150)
 -4  hist2 GRESX13; "GR Resolution X1-3"; (GR_POS_X1[0]-GR_WIRER_X1[3])*GR_PL_X1[3]*tan(GR_VDC_TILT[1]+GR_TH[0])/GR_PL_X1[5]; -1.2; 1.2; 120; "GR Pos Tracked"; GR_TDCR_X1[3]; 0; 400; 100; "GR TDC X1"; gate(GR_POS_X1[0], 50, 150)
 -4  hist2 GRESX10; "GR Resolution X1-0"; (GR_POS_X1[0]-GR_WIRER_X1[0])*GR_PL_X1[3]*tan(GR_VDC_TILT[1]+GR_TH[0])/GR_PL_X1[5]; -1.2; 1.2; 120; "GR Pos Tracked"; GR_DRIFT_X1[0]; -0.1; 1.1; 120; "GR Drift Length X1"; gate(GR_POS_X1[0], 50, 150)
 -4  hist2 GRESX11; "GR Resolution X1-1"; (GR_POS_X1[0]-GR_WIRER_X1[1])*GR_PL_X1[3]*tan(GR_VDC_TILT[1]+GR_TH[0])/GR_PL_X1[5]; -1.2; 1.2; 120; "GR Pos Tracked"; GR_DRIFT_X1[1]; -0.1; 1.1; 120; "GR Drift Length X1"; gate(GR_POS_X1[0], 50, 150)
 -4  hist2 GRESX12; "GR Resolution X1-2"; (GR_POS_X1[0]-GR_WIRER_X1[2])*GR_PL_X1[3]*tan(GR_VDC_TILT[1]+GR_TH[0])/GR_PL_X1[5]; -1.2; 1.2; 120; "GR Pos Tracked"; GR_DRIFT_X1[2]; -0.1; 1.1; 120; "GR Drift Length X1"; gate(GR_POS_X1[0], 50, 150)
 -4  hist2 GRESX13; "GR Resolution X1-3"; (GR_POS_X1[0]-GR_WIRER_X1[3])*GR_PL_X1[3]*tan(GR_VDC_TILT[1]+GR_TH[0])/GR_PL_X1[5]; -1.2; 1.2; 120; "GR Pos Tracked"; GR_DRIFT_X1[3]; -0.1; 1.1; 120; "GR Drift Length X1"; gate(GR_POS_X1[0], 50, 150)
  4  hist1 GPOSIDX1; "GR POSID X1"; GR_POSID_X1; -10; 40; 50; ""; ""; EVENT_GR_COIN
 -4  hist1 GPOSIDU1; "GR POSID U1"; GR_POSID_U1; -10; 40; 50; ""; ""; EVENT_GR_COIN
 -4  hist1 GPOSIDX2; "GR POSID X2"; GR_POSID_X2; -10; 40; 50; ""; ""; EVENT_GR_COIN
 -4  hist1 GPOSIDU2; "GR POSID U2"; GR_POSID_U2; -10; 40; 50; ""; ""; EVENT_GR_COIN
 -4  hist1 GPOSIDX1G; "GR POSID X1"; GR_POSID_X1; -10; 40; 50; ""; ""; EVENT_GR_COIN && GR_POSID_U1==0 && GR_POSID_X2==0 && GR_POSID_U2==0
 -4  hist1 GPOSIDU1G; "GR POSID U1"; GR_POSID_X1; -10; 40; 50; ""; ""; EVENT_GR_COIN && GR_POSID_X1==0 && GR_POSID_X2==0 && GR_POSID_U2==0
 -4  hist1 GPOSIDX2G; "GR POSID X2"; GR_POSID_X1; -10; 40; 50; ""; ""; EVENT_GR_COIN && GR_POSID_X1==0 && GR_POSID_U1==0 && GR_POSID_U2==0
 -4  hist1 GPOSIDU2G; "GR POSID U2"; GR_POSID_X1; -10; 40; 50; ""; ""; EVENT_GR_COIN && GR_POSID_X1==0 && GR_POSID_U1==0 && GR_POSID_X2==0
  3  com   GR RAY
 -4. com   Plane Angular Resolution
  5  hist2 GARESX1; "GR Grad X vs Grad X1 - X"; (atan(GR_GRAD_X1[0])-atan(GR_GRAD_X[0]))*r2d; -7; 7; 70; "Angular Resolution X1[deg]"; atan(GR_GRAD_X[0])*r2d; -60; -30; 60; "GR Grad X [deg]"; GR_RAYID[0]==0
  5  hist2 GARESX2; "GR Grad X vs Grad X2 - X"; (atan(GR_GRAD_X2[0])-atan(GR_GRAD_X[0]))*r2d; -7; 7; 70; "Angular Resolution X1[deg]"; atan(GR_GRAD_X[0])*r2d; -60; -30; 60; "GR Grad X [deg]"; GR_RAYID[0]==0
  5  hist2 GARESU1; "GR Grad U vs Grad U1 - U"; (atan(GR_GRAD_U1[0])-atan(GR_GRAD_X[0]*cos(48.19*d2r)-GR_GRAD_Y[0]*sin(48.19*d2r)))*r2d; -7; 7; 70; "Angular Resolution X1[deg]"; atan(GR_GRAD_X[0]*cos(48.19*d2r)-GR_GRAD_Y[0]*sin(48.19*d2r))*r2d; -45; -15; 80; "GR Grad U [deg]"; GR_RAYID[0]==0
  5  hist2 GARESU2; "GR Grad U vs Grad U2 - U"; (atan(GR_GRAD_U2[0])-atan(GR_GRAD_X[0]*cos(48.19*d2r)-GR_GRAD_Y[0]*sin(48.19*d2r)))*r2d; -7; 7; 70; "Angular Resolution X1[deg]"; atan(GR_GRAD_X[0]*cos(48.19*d2r)-GR_GRAD_Y[0]*sin(48.19*d2r))*r2d; -45; -15; 80; "GR Grad U [deg]"; GR_RAYID[0]==0
 -4  hist1 GRAYIDPIRF; "GR RAYID (PI-Gated, RF-Gated)"; GR_RAYID; -20; 40; 60; ""; ""; EVENT_GR_COIN && GR_PI && GR_PI_RF_3He
 -4  hist1 GRAYIDPIRF2; "GR RAYID (PI-Gated, RF-Gated)"; GR_RAYID; -20; 40; 60; ""; ""; EVENT_GR_COIN && GR_PI && GR_PI_RF_3He && GR_TPOSP
  4  hist1 GRAYID; "GR RAYID (PI-Gated)"; GR_RAYID; -20; 40; 60; ""; ""; EVENT_GR_COIN 
 -4  hist1 GRAYIDc; "GR RAYID (center)"; GR_RAYID; -20; 40; 60; ""; ""; EVENT_GR_COIN && GR_PI && gate(GR_TPOS[1], -100, -70)
 -4  hist2 GRAYIDBLK; "GR RAYID vs BLK"; BLOCK_N[0]; 0; 150000; 150; "Block Number"; GR_RAYID; -5; 20; 25; "RAYID"; EVENT_GR_COIN && GR_PI
 -4  hist1 GRAYIDU; "GR RAYID (Spin-Up)"; GR_RAYID; -20; 40; 60; ""; ""; EVENT_GR_COIN && GR_PI && SPIN_UP
 -4  hist1 GRAYIDD; "GR RAYID (Spin-Dwon)"; GR_RAYID; -20; 40; 60; ""; ""; EVENT_GR_COIN && GR_PI && SPIN_DN
 -4  hist2 GRAYIDTPOS1; "GR RAYID vs TPOS1"; GR_TPOS[1]; -200; 50; 100; "Block Number"; GR_RAYID[0]; -5; 20; 25; "RAYID"; EVENT_GR_COIN && GR_PI
 -4  hist1 GCHI2; "GR Chi Square"; GR_CHI2[0]; -10; 500; 510; "GR Chi Square"; "Counts/0.01"; EVENT_GR_COIN && GR_PI
 -4  hist1 GNCOMB; "GR VDC Number of Combinations"; GR_NCOMB[0]; -10; 100; 110; "GR VDC Number of Combinations"; "Counts/ch"; EVENT_GR_COIN && GR_PI
 -4  hist1 GRAYX; "GR RAY X"; GR_RAY_X[0]; -600; 600; 800; ""; ""; EVENT_GR_COIN
 -4  hist1 GRAYY; "GR RAY Y"; GR_RAY_Y[0]; -100; 100; 200; ""; ""; EVENT_GR_COIN
  4  hist1 GX; "GR X"; GR_X[0]; -1000; 1000; 20000; ""; "";
  4  hist1 GXRAW; "GR X no cond"; GR_X[0]; -600; 600; 3000; ""; ""; EVENT_GR_COIN
 -4  hist1 GEne; "GR Ene"; -0.0254*GR_POS_X1+25.414; -5; 25; 300; ""; ""; EVENT_GR_COIN
  4  hist1 GXPI; "GR X (PI-Gated)"; GR_X[0]; -600; 600; 3000; ""; ""; EVENT_GR_COIN && GR_PI_ADC
 -4  hist1 GXPIRF; "GR X (PI-Gated, RF-Gated)"; GR_X[0]; -600; 600; 3000; ""; ""; EVENT_GR_COIN && GR_PI && GR_PI_RF_D
 -4  hist1 GXPIRF; "GR X (PI-Gated, RF-Gated)"; GR_X[0]; -600; 600; 3000; ""; ""; EVENT_GR_COIN && GR_PI && GR_PI_RF_3He
 -4  hist1 GX3; "GR X3 (on PS1)"; GR_XP[3]; -600; 600; 12000; ""; ""; EVENT_GR_COIN
 -4  hist1 GXN; "GR X Narrow"; GR_X[0]; -600; 600; 6000; ""; ""; EVENT_GR_COIN && GR_TH_NAR
 -4  hist1 GXNPIRF; "GR X Narrow PI Gate RF & Gate "; GR_X[0]; -600; 600; 6000; ""; ""; EVENT_GR_COIN && GR_TH_NAR && GR_PI
 -4  hist1 GXN1; "GR X Narrow  -0.8 th -0.4"; GR_X[0]; -600; 600; 6000; ""; ""; EVENT_GR_COIN && GR_TH_NAR1
 -4  hist1 GXN1PIRF; "GR X Narrow  -0.8 th -0.4 PI Gated & RF Gated"; GR_X[0]; -600; 600; 6000; ""; ""; EVENT_GR_COIN && GR_TH_NAR1 && GR_PI
 -4  hist1 GXN2; "GR X Narrow -0.4 th 0.0"; GR_X[0]; -600; 600; 6000; ""; ""; EVENT_GR_COIN && GR_TH_NAR2
 -4  hist1 GXN2PIRF; "GR X Narrow -0.4 th 0.0 PI Gated & RF Gated "; GR_X[0]; -600; 600; 6000; ""; ""; EVENT_GR_COIN && GR_TH_NAR2 && GR_PI
 -4  hist1 GXN3; "GR X Narrow 0.0 th 0.4"; GR_X[0]; -600; 600; 6000; ""; ""; EVENT_GR_COIN && GR_TH_NAR3
 -4  hist1 GXN3PIRF; "GR X Narrow 0.0 th 0.4 PI Gated & RF Gated "; GR_X[0]; -600; 600; 6000; ""; ""; EVENT_GR_COIN && GR_TH_NAR3 && GR_PI
 -4  hist1 GXN4; "GR X Narrow 0.4 th 0.8 "; GR_X[0]; -600; 600; 6000; ""; ""; EVENT_GR_COIN && GR_TH_NAR4
 -4  hist1 GXN4PIRF; "GR X Narrow 0.4 th 0.8 PI Gated & RF Gated "; GR_X[0]; -600; 600; 6000; ""; ""; EVENT_GR_COIN && GR_TH_NAR4 && GR_PI
 -4  hist1 GXG; "GR X (Gated by YC and AI)"; GR_X[0]; -600; 600; 12000; ""; ""; EVENT_GR_COIN && GR_YC_G && gate(GR_AI[0]*r2d, -0.5, 0.5)
 -4  hist1 GXE; "GR X (Elastic)"; GR_X[0]; -600; 600; 1200; ""; ""; EVENT_GR_COIN && G_ELASTIC
  4  hist1 GY; "GR Y"; GR_Y; -100; 100; 3000; ""; ""; EVENT_GR_COIN
  4  hist1 GYC; "GR YC"; GR_YC; -100; 100; 3000; ""; ""; EVENT_GR_COIN && GR_PI
 -4  hist2 GTHDE3; "GR DE 3 vs GR TH"; GR_TH[0]*r2d; -5; 5; 100; "GR TH [deg]"; GR_MADC[3]; 0; 1000; 50; "GR DE 3"; EVENT_GR_COIN && GR_RAYID==0
  4  hist1 GYN; "GR Y narrow"; GR_Y[0]; -100; 100; 2000; ""; ""; EVENT_GR_COIN && GR_TH_NAR
  4  hist1 GYNCENT; "GR Y narrow central "; GR_Y[0]; -100; 100; 2000; ""; ""; EVENT_GR_COIN && GR_TH_NAR && gate(GR_Y[0],50,70)
  4  hist1 GYNLEFT; "GR Y narrow left"; GR_Y[0]; -100; 100; 2000; ""; ""; EVENT_GR_COIN && GR_TH_NAR && gate(GR_Y[0],30,50)
  4  hist1 GYNRIGHT; "GR Y narrow right"; GR_Y[0]; -100; 100; 2000; ""; ""; EVENT_GR_COIN && GR_TH_NAR && gate(GR_Y[0],70,90)
 -4  hist1 GXCNBG1; "GR Background (make by using left side of Y data )"; GR_XC[0]; -600; 600; 2000; ""; ""; EVENT_GR_COIN && GR_TH_NAR && GR_PI && GR_YC_G
 -4  hist2 GXCBG1TH; "GR GXCBG1 vs GR TH"; GR_XC[0]; -600; 600; 600; "GR XC Background1 [mm]"; GR_THC[0]*r2d; -3; 3; 100; "GR TH [deg]"; EVENT_GR_COIN && gate(GR_Y[0],30,50) && gate(GR_TH[0]*r2d,-2.,2)
 -4  hist1 GXCBG1; "GR Background (make by using left side of Y data )"; GR_XC[0]; -600; 600; 2000; ""; ""; EVENT_GR_COIN && gate(GR_Y[0],30,50)
 -4  hist1 GXCNBG2; "GR Background (make by using right side of Y data )"; GR_XC[0]; -600; 600; 2000; ""; ""; EVENT_GR_COIN && GR_TH_NAR && gate(GR_Y[0],70,90)
 -4  hist1 GXCBG2; "GR Background (make by using right side of Y data )"; GR_XC[0]; -600; 600; 2000; ""; ""; EVENT_GR_COIN && gate(GR_Y[0],70,90)
 -4  hist1 GTHXCUT; "GR TH (Gated X)"; GR_TH[0]*r2d; -20; 20; 400; ""; ""; EVENT_GR_CION && gate(GR_X[0], -600, -300)
  4  hist1 GTHC; "GR THC"; GR_THC[0]*r2d; -20; 20; 400; ""; ""; EVENT_GR_COIN
 -4  hist2 GXCTHC; "GR THC vs XC"; GR_XC[0]; -600; 600; 300; ""; GR_THC[0]*r2d; -4; 4; 60; ""; EVENT_GR_COIN && GR_PI && GR_Y_G
  4  hist1 GTH; "GR TH"; GR_TH[0]*r2d; -20; 20; 400; ""; ""; EVENT_GR_COIN
 -4  hist1 GTHE; "GR TH (Expanded)"; GR_TH[0]*r2d; -2; 4; 400; "GR Theta"; "Counts/ch"; EVENT_GR_COIN
  4  hist2 GXPHPI; "GR Ph vs X PI Gated"; GR_X; -600; 200; 400; "GR X"; GR_PH*r2d; -2.5; 2.5; 250; "GR Phi"; EVENT_GR_COIN && GR_PI && GR_YC_G
  4  hist1 GPH; "GR PH"; GR_PH[0]*r2d; -5; 5; 400; ""; ""; EVENT_GR_COIN
  4  hist2 GXY; "GR Y vs X"; GR_X[0]; -600; 400; 300; "GR X [mm]"; GR_Y[0]; -100; 100; 100; "GR Y [mm]"; EVENT_GR_COIN
 -4  hist2 GXYE; "GR Y vs X (Expanded)"; GR_X[0]; 180; 230; 200; "GR X [mm]"; GR_Y[0]; 20; 100; 120; "GR Y [mm]"; EVENT_GR_COIN
  4  hist2 GXRF; "GR RF vs X"; GR_X[0]; -600; 600; 50; "GR X [mm]"; GR_RF[0]; 0; 2048; 64; ""; EVENT_GR_COIN
 -4  hist2 GXTHFC; "GR TH[mm] vs X"; GR_X[0]; -600; 600; 2400; ""; GR_TH[0]; -200; 200; 400; ""; EVENT_GR_COIN
  4  hist2 GXTH; "GR TH vs X"; GR_X[0]; -600; 600; 2400; ""; GR_TH[0]*r2d; -8; 10; 60; ""; EVENT_GR_COIN
 -4  hist2 GXTHG; "GR TH vs X PI YC Gated"; GR_X[0]; -600; 600; 300; ""; GR_TH[0]*r2d; -8; 10; 60; ""; EVENT_GR_COIN && GR_PI && GR_YC_G
 -4  hist2 GXTHC; "GR THC vs X"; GR_XC[0]; -600; 600; 300; ""; GR_TH[0]*r2d; -8; 10; 60; ""; EVENT_GR_COIN && GR_PI && GR_Y_G
  4  hist2 GXTHPI; "GR TH vs X (PI Gated)"; GR_X[0]; -600; 600; 150; ""; GR_TH[0]*r2d; -6; 6; 60; ""; EVENT_GR_COIN && GR_PI_ADC
 -4  hist2 GXCTHCPITHNAR; "GR THC vs XC (PI Y Gated)"; GR_XC[0]; -600; 200; 400; ""; GR_THC*r2d; -4; 4; 90; ""; EVENT_GR_COIN && GR_PI && GR_YC_G && GR_TH_NAR
 -4  hist2 GXCTHCPI; "GR THC vs XC (PI Y Gated)"; GR_XC[0]; -600; 200; 400; ""; GR_THC*r2d; -4; 4; 90; ""; EVENT_GR_COIN && GR_PI && GR_YC_G
 -4  hist2 GYCPHC; "GR Phic vs Yc"; GR_YC[0]; -50; 50; 500; "GR Yc [mm]"; GR_PHC[0]*r2d; -2; 2; 500; "GR PHc [deg]"; EVENT_GR_COIN
 -4  hist2 GYCPH; "GR Phi vs Yc"; GR_YC[0]; -50; 50; 500; "GR Yc [mm]"; GR_PH[0]*r2d; -2; 2; 500; "GR PH [deg]"; EVENT_GR_COIN
 -4  hist2 GYPH; "GR Phi vs Y"; GR_Y[0]; -50; 50; 500; "GR Y [mm]"; GR_PH[0]*r2d; -2; 2; 500; "GR PH [deg]"; EVENT_GR_COIN && GR_PI
 -4  hist2 GTHCPH; "GR Phi vs Theta_c"; GR_THC*r2d; -5.; 5.; 250; "GR Theta [deg]"; GR_PH[0]*r2d; -2; 2; 250; "GR Phi [deg]"; EVENT_GR_COIN && GR_PI # &&G_ELASTIC
 -4  hist2 GTHCPHG; "GR Phi vs Theta_c (x gated)"; GR_THC*r2d; -5.; 5.; 250; "GR Theta [deg]"; GR_PH[0]*r2d; -2; 2; 250; "GR Phi [deg]"; EVENT_GR_COIN && GR_PI && gate(GR_XC[0],-550,-530)
 -4  hist2 GTHPH; "GR Phi vs Theta"; GR_TH[0]*r2d; -5.; 5.; 50; "GR Theta [deg]"; GR_PH[0]*r2d; -2; 2; 50; "GR Phi [deg]"; EVENT_GR_COIN && GR_PI && gate(GR_XC[0],-520,-500)
 -4  hist2 GTHCYC; "GR YC vs ThetaC"; GR_THC[0]*r2d; -4; 8; 240; "GR Theta [deg]"; GR_YC[0]; -20; 20; 100; "GR Y [mm]"; EVENT_GR_COIN && GR_PI
 -3. com   GR Optics
 -4  hist2 GPTH; "GR theta vs momentum"; GR_P[0]; 0.3*GR_q*GR_B*3.00*0.97; 0.3*GR_q*GR_B*3.00*1.03; 50; "momentum [MeV/c]"; GR_TH[0]*r2d; -5.; 5.; 50; "theta F.P. [deg]"; EVENT_GR_COIN
 -4  hist1 GTHC; "GR THC"; GR_THC[0]*r2d; -2; 2; 400; "GR THC [deg]"; "Counts/ch"; EVENT_GR_COIN
 -4  hist1 GTHCE; "GR THC Elastic"; GR_THC[0]*r2d; -2; 2; 80; "GR THC [deg]"; "Counts/ch"; EVENT_GR_COIN && G_ELASTIC
  4  hist2 GTHYE; "GR TH Elastic"; GR_TH[0]*r2d; -5; 5; 600; "GR TH [deg]"; GR_Y[0]; -20; 20; 200; "GR Y [mm]"; EVENT_GR_COIN && G_ELASTIC &&GR_PI && GR_YC_G
 -4  hist2 GTHCYE; "GR THC Elastic"; GR_THC[0]*r2d; -2; 2; 160; "GR THC [deg]"; GR_Y[0]; -20; 20; 100; "GR Y [mm]"; EVENT_GR_COIN && G_ELASTIC
  4  hist2 GTHCPHE; "GR THC Elastic"; GR_THC[0]*r2d; -2; 2; 400; "GR THC [deg]"; GR_PH[0]*r2d; -2; 2; 400; "GR Phi [deg]"; EVENT_GR_COIN && G_ELASTIC
  4  hist2 GYPHE; "GR Y PH (Elastic)"; GR_Y[0]; -20; 20; 80; "GR Y [mm]"; GR_PH[0]*r2d; -2; 2; 50; "GR Phi [deg]"; EVENT_GR_COIN && G_ELASTIC && gate(GR_TH[0]*r2d,-1.4,-0.11)
 -4  hist2 GTHCY; "GR Y vs THC"; GR_THC[0]*r2d; -2; 2; 100; "GR THC [deg]"; GR_Y[0]; -20; 20; 100; "GR Y [mm]"; EVENT_GR_COIN
  4  hist2 GXTHC; "GR THC vs X"; GR_X[0]; -600; 600; 100; "GR X [mm]"; GR_THC[0]*r2d; -5; 5; 100; "GR THC [deg]"; EVENT_GR_COIN
 -4  hist2 GXTHCPIRF; "GR THC vs X"; GR_X[0]; -600; 600; 100; "GR X [mm]"; GR_THC[0]*r2d; -3; 3; 50; "GR THC [deg]"; EVENT_GR_COIN && GR_PI
 -4  hist2 GXTHCE; "GR THC vs X (expanded)"; GR_X[0]; -500; -300; 100; "GR X [mm]"; GR_THC[0]*r2d; -3; 3; 50; "GR THC [deg]"; EVENT_GR_COIN
 -4  hist2 GXCTHCE; "GR THC vs XC (expanded)"; GR_XC[0]; -100; 100; 200; "GR XC [mm]"; GR_THC[0]*r2d; -3; 3; 50; "GR THC [deg]"; EVENT_GR_COIN
  4  hist1 GXCGBG; "GR XC (BG) (PI gated, Ycbg gated, Thc gated)"; GR_XC[0]; -600; 200; 1600; ""; ""; EVENT_GR_COIN && GR_PI && GR_YC_BGG && GR_TH_NAR
  4  hist1 GXCG; "GR XC (PI gated, Yc gated, Thc gated)"; GR_XC[0]; -600; 200; 1600; ""; ""; EVENT_GR_COIN && GR_PI && GR_YC_G && GR_TH_NAR
  4  hist1 GXC; "GR XC"; GR_XC[0]; -600; 600; 2400; ""; ""; EVENT_GR_COIN
  4  hist2 GXCTH; "GR TH vs XC"; GR_XC[0]; -400; -300; 100; "GR X [mm]"; GR_TH[0]*r2d; -2; 7; 100; "GR TH [deg]"; EVENT_GR_COIN
 -4  hist2 GXCTHE; "GR TH vs XC"; GR_XC[0]; -370; -330; 100; "GR X [mm]"; GR_TH[0]*r2d; 1; 3; 100; "GR TH [deg]"; EVENT_GR_COIN
  4  hist1 GXCPI; "GR XC PI Y Gated"; GR_XC[0]; -600; 600; 2400; ""; ""; EVENT_GR_COIN && GR_PI &&GR_Y_G
  4  hist1 GXCN; "GR XC Narrow"; GR_XC[0]; -600; 600; 2400; ""; ""; EVENT_GR_COIN && GR_TH_NAR
 -4  hist1 GYC; "GR YC"; GR_YC[0]; -100; 100; 200; "GR YC [mm]"; "Counts/ch"; EVENT_GR_COIN
 -4  hist1 GYCN; "GR YC (TH-Narrow)"; GR_YC[0]; -100; 100; 200; "GR YC [mm]"; "Counts/ch"; EVENT_GR_COIN && GR_TH_NAR
 -4  hist2 GXYCTEST; "GR YC vs X Test Gated"; GR_X[0]; -600; 600; 100; "GR X [mm]"; GR_YC[0]; -100; 100; 100; "GR YC [mm]"; EVENT_GR_COIN && gate(GR_YC[0],1,10) && gate(GR_TH[0]*r2d,-1,0)
  4  hist2 GXYC; "GR YC vs X"; GR_X[0]; -600; 600; 1200; "GR X [mm]"; GR_YC[0]; -100; 100; 1200; "GR YC [mm]"; EVENT_GR_COIN
 -4  hist1 GP; "GR Momentum"; GR_P[0]; 0.3*GR_B*GR_Rho*GR_q*0.97; 0.3*GR_B*GR_Rho*GR_q*1.03; 1600; "Momentum [MeV/c]"; "Counts/ch"; EVENT_GR_COIN
 -4  hist1 GPN; "GR Momentum (THC Narrow)"; GR_P[0]; 0.3*GR_B*GR_Rho*GR_q*0.97; 0.3*GR_B*GR_Rho*GR_q*1.03; 1600; "Momentum [MeV/c]"; "Counts/ch"; EVENT_GR_COIN && GR_THC_NAR
 -4  hist1 GTH3; "GR scattering angle"; GR_TH3[0]*r2d; GR_ANG-2; GR_ANG+2; 400; "GR scattering angle [deg]"; "Counts/ch"; EVENT_GR_COIN
 -4  hist2 GPTH3; "GR Scatt. ang. vs momentum"; GR_P[0]; 0.3*GR_B*GR_Rho*GR_q*0.97; 0.3*GR_B*GR_Rho*GR_q*1.03; 50; "GR momentum [MeV/c]"; GR_TH3[0]*r2d; GR_ANG-2; GR_ANG+2; 50; "GR scattering angle [deg]"; EVENT_GR_COIN
  4  hist2 GXCTHC; "GR THC vs XC"; GR_XC[0]; -600; 600; 1200; "GR XC [mm]"; GR_THC[0]*r2d; -2; 2; 50; "GR THC [deg]"; EVENT_GR_COIN
 -4  hist2 GAIBI; "GR Bi vs Ai"; GR_AI[0]*r2d; -2; 2; 100; "GR AI [deg]"; GR_BI[0]*r2d; -5; 5; 100; "GR BI [deg]"; EVENT_GR_COIN && GR_RF_G1 && GR_YC_G
 -4  hist2 GAIBIGX; "GR Bi vs Ai (Gated by X)"; GR_AI[0]*r2d; -2; 2; 100; "GR AI [deg]"; GR_BI[0]*r2d; -5; 5; 100; "GR BI [deg]"; EVENT_GR_COIN && GR_RF_G1 && GR_YC_G && G_ELASTIC
  4  hist2 GENY; "GR Y vs En"; GR_EN; 8.2; 8.8; 400; "GR_EN [MeV]"; GR_Y[0]; -5; 5; 50; "GR Y [mm]"; EVENT_GR_COIN
  4  hist2 GENTH; "GR Th vs En"; GR_EN; 8.2; 8.8; 400; "GR_EN [MeV]"; GR_TH[0]*r2d; 2.5; 4.5; 60; ""; EVENT_GR_COIN
 -4  hist2 GTHY; "GR Th vs En"; GR_TH[0]*r2d; 2.5; 4.5; 60; ""; GR_Y; 0; 20; 100; "GR_Y [mm]"; EVENT_GR_COIN
  4  hist1 GEXBG; "GR excitation energy (BG)"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_BGG && GR_TH_NAR && GR_PH_NAR
  4  hist1 GEXBGBLKG; "GR excitation energy (BG) can use BLK Gated"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_BGG && GR_BLK # && GR_TH_NAR
  4  hist1 GEXBGM; "GR excitation energy (BG) minus BG"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_BGGM && GR_TH_NAR
  4  hist1 GEXBGMLB; "GR excitation energy (BG) minus BG (Larger Bin)"; GR_EN; 4.; 23.; 380; "GR excitation energy [MeV]"; "Counts/50keV"; EVENT_GR_COIN && GR_PI && GR_YC_BGGM && GR_TH_NAR &&GR_PH_NAR # dE = 50keV
  4  hist1 GEXBGP; "GR excitation energy (BG) plus BG"; GR_EN; -2.; 28.; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_BGGP && GR_TH_NAR
  4  hist1 GEXBGPLB; "GR excitation energy (BG) plus BG (Larger Bin)"; GR_EN; 4.; 23; 380; "GR excitation energy [MeV]"; "Counts/50keV"; EVENT_GR_COIN && GR_PI && GR_YC_BGGP && GR_TH_NAR && GR_PH_NAR # dE = 50keV  && gate(GR_X[0],-450,200)
 -4  hist1 GEX_test; "GR excitation energy test"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI # && GR_TH_NAR
  4  hist1 GEX100keVBLKG; "GR excitation energy (6MeV - 6.1MeV) can use BLK gated"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_G && GR_TH_NAR && gate(GR_EN,6.0,6.1) && GR_BLK
  4  hist1 GEX100keV; "GR excitation energy (6MeV - 6.1MeV)"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_G && GR_TH_NAR && gate(GR_EN,6.0,6.1)
  4  hist1 GEXbgm100keVBLKG; "GR excitation energy (6MeV - 6.1MeV) minus-BG can use BLK Gated"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_BGGM && GR_TH_NAR && gate(GR_EN,6.0,6.1) && GR_BLK
  4  hist1 GEXbgm100keV; "GR excitation energy (6MeV - 6.1MeV) minus-BG"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_BGGM && GR_TH_NAR && gate(GR_EN,6.0,6.1)
  4  hist1 GEXbgp100keV; "GR excitation energy (6MeV - 6.1MeV) plus-BG"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_BGGp && GR_TH_NAR && gate(GR_EN,6.0,6.1)
 -4  hist1 GEXTEST; "GR excitation energy TEST Gated"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_G && GR_TH_NAR && gate(GR_YC[0],1,10) &&gate(GR_THC[0]*r2d, -1,0)
  4  hist1 GEXBLKG; "GR excitation energy (BLKGated)"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_G && GR_BLK # && GR_TH_NAR
  4  hist1 GEXLB; "GR excitation energy (larger bin)"; GR_EN; 4.; 23; 380; "GR excitation energy [MeV]"; "Counts/50keV"; EVENT_GR_COIN && GR_PI && GR_YC_G && GR_TH_NAR && GR_PH_NAR # && gate(GR_X[0],-450,200)
  4  hist1 GEX; "GR excitation energy"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_G && GR_TH_NAR
 -4  hist1 GEXPIYCTH; "GR excitation energy (PI, YC, TH gated)"; GR_EN; -2.; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_G && GR_TH_NAR
 -4  hist1 GEXE; "GR excitation energy (Expanded)"; GR_EX[0]; -1; 1; 1000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN
 -4  hist1 GEXGEX; "GR excitation energy (PI--YC Gated) Expand"; GR_EN[0]; -2; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_G && gate(GR_TH*r2d,3,6)
 -4  hist1 GEXGEXNRF; "GR excitation energy (PI--YC Gated) Expand nothing RF gate"; GR_EN[0]; -2; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI_ADC && GR_YC_G && gate(GR_TH*r2d,3,6)
 -4  hist1 GEXG; "GR excitation energy (PI--YC Gated)"; GR_EN[0]; -2; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_PI && GR_YC_G
 -4  hist1 GEXG2; "GR excitation energy (YC,PHC Gated, AI-Gated)"; GR_EX[0]; 4; 20; 3200; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_TRUE && gate(GR_AI[0]*r2d, -0.2, 0.2)
 -4  hist1 GEXG3; "GR excitation energy (YC,PHC Gated, AI,BI-Gated)"; GR_EX[0]; 4; 20; 3200; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_TRUE && gate(GR_AI[0]*r2d, -0.2, 0.2) && gate(GR_BI[0]*r2d, -0.5, 0.5)
 -4  hist2 GEXRF; "GR excitation energy (Small Region) vs RF"; GR_EX[0]-1.48; -2; 18; 400; "GR excitation energy [MeV]"; GR_RF[0]; 0; 2048; 400; ""; EVENT_GR_COIN
 -4  hist1 GEXT; "GR excitation energy (Small Region) True"; GR_EX_C; -2; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_RF_G1 && GR_THC_G1 && GR_YC_G
 -4  hist1 GEXB; "GR excitation energy (Small Region) Back*2"; GR_EX[0]; -2; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_RF_G1 && GR_THC_G1 && GR_YC_B
 -4  hist1 GEXN; "GR excitation energy (narrow)"; GR_EX[0]; -5; 30; 3500; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_TH_NAR
 -4  hist1 GEXCG; "GR excitation energy-C (YC,PHC-Gated)"; GR_EX_C[0]; 0; 25; 5000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_TRUE
 -4  hist1 GEXCG2; "GR excitation energy-C (YC,PHC Gated, AI-Gated)"; GR_EX_C[0]; 4; 20; 3200; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_TRUE && gate(GR_AI[0]*r2d, -0.2, 0.2)
 -4  hist1 GEXCG3; "GR excitation energy-C (YC,PHC Gated, AI,BI-Gated)"; GR_EX_C[0]; 4; 20; 3200; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_TRUE && gate(GR_AI[0]*r2d, -0.2, 0.2) && gate(GR_BI[0]*r2d, -0.5, 0.5)
 -4  hist2 GEXCTPOS1; "GR excitation energy-c vs TPOS1"; GR_TPOS[1]; -200; 50; 100; "GR TPOS 1 [ch]"; GR_EX_C[0]; 0; 30; 100; "GR excitation energy [MeV]"; EVENT_GR_COIN
 -4  hist1 GEXCGYC; "GR excitation energy-c (YC-Gated)"; GR_EX_C[0]; -2; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_YC_G
 -4  hist1 GEXCGAB; "GR excitation energy-c (AI,BI-Gated)"; GR_EX_C[0]; -2; 28; 3000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_AI_G && GR_BI_G
 -4  hist2 GEXTHC; "GR Theta-C vs excitation energy"; GR_EX[0]; -2; 2; 200; "GR excitation energy [MeV]"; GR_THC[0]*r2d; -2; 2; 50; "GR THC [deg]"; EVENT_GR_COIN
 -4  hist2 GEXTH3; "GR excitation energy vs momentum"; GR_EX[0]; -2; 2; 200; "GR excitation energy [MeV]"; GR_TH3[0]*r2d; GR_ANG-2; GR_ANG+2; 50; "GR scattering angle [deg]"; EVENT_GR_COIN
 -4  hist2 GEXCTH3; "GR Theta-3 vs excitation energy-c"; GR_EX_C[0]; 11.; 12.; 200; "GR excitation energy [MeV]"; GR_TH3[0]*r2d; GR_ANG-2; GR_ANG+2; 50; "GR scattering angle [deg]"; EVENT_GR_COIN
 -4  hist2 GEXCYC; "GR YC vs excitation energy-c (PHC-gated)"; GR_EX_C[0]; 5.; 25; 100; "GR excitation energy [MeV]"; GR_YC[0]; -100; 100; 200; "GR YC [mm]"; EVENT_GR_COIN && GR_PHC_G
 -4  hist2 GEXCTHC; "GR theta-c vs excitation energy-c"; GR_EX_C[0]; -2; 18; 1400; "GR excitation energy [MeV]"; GR_THC[0]*r2d; -2; 2; 40; "GR THC [deg]"; EVENT_GR_COIN
 -4  hist2 GEXCAI; "GR AI vs excitation energy-c (true-gated)"; GR_EX_C[0]; 5; 15; 1000; "GR excitation energy [MeV]"; GR_AI[0]*r2d; -1.5; 1.5; 30; "GR AI [deg]"; EVENT_GR_COIN && GR_TRUE && GR_BI_G
 -4  hist2 GEXCBI; "GR BI vs excitation energy-c (true-gated)"; GR_EX_C[0]; 5; 15; 1000; "GR excitation energy [MeV]"; GR_BI[0]*r2d; -4; 4; 40; "GR BI [deg]"; EVENT_GR_COIN && GR_TRUE && GR_AI_G
 -4  hist2 GEXCAI2; "GR AI vs excitation energy-c (true-gated)"; GR_EX_C[0]; 5; 25; 1000; "GR excitation energy [MeV]"; GR_AI[0]*r2d; -1.5; 1.5; 30; "GR AI [deg]"; EVENT_GR_COIN && GR_TRUE && GR_BI_G
 -4  hist2 GEXCBI2; "GR BI vs excitation energy-c (true-gated)"; GR_EX_C[0]; 5; 25; 1000; "GR excitation energy [MeV]"; GR_BI[0]*r2d; -4; 4; 40; "GR BI [deg]"; EVENT_GR_COIN && GR_TRUE && GR_AI_G
 -4  hist2 GEXCAI2; "GR AI vs excitation energy-c (true-gated)"; GR_EX_C[0]; 5; 25; 200; "GR excitation energy [MeV]"; GR_AI[0]*r2d; -1.5; 1.5; 100; "GR AI [deg]"; EVENT_GR_COIN && GR_TRUE && GR_BI_G
 -4  hist2 GEXCBI2; "GR BI vs excitation energy-c (true-gated)"; GR_EX_C[0]; 5; 25; 200; "GR excitation energy [MeV]"; GR_BI[0]*r2d; -4; 4; 100; "GR BI [deg]"; EVENT_GR_COIN && GR_TRUE && GR_AI_G
 -3. com   GR Optics Calibration (E282)
 -4  com   Sieve Slit Calibation
  5  hist1 GXE; "GR X (Elastic-Gated)"; GR_X[0]; -600; 600; 12000; ""; ""; EVENT_GR_COIN && G_ELASTIC
  5  hist2 GTHYE; "GR Y vs Theta (Elastic)"; GR_TH[0]*r2d; -5; 5; 200; "GR Theta [deg]"; GR_Y[0]; 20; 100; 90; "GR Y [mm]"; EVENT_GR_COIN
 -5  hist2 GTHYE; "GR Y vs Theta (Elastic)"; GR_TH[0]*r2d; -5; 5; 200; "GR Theta [deg]"; GR_Y[0]; 20; 100; 90; "GR Y [mm]"; EVENT_GR_COIN && G_ELASTIC
  5  hist1 GTHG1; "GR Theta (AI-gated-1)"; GR_TH[0]*r2d; -5; 5; 200; "GR Theta [deg]"; ""; EVENT_GR_COIN && gate(GR_AI[0]*r2d,  0.6,  1.0) && G_X
  5  hist1 GTHG2; "GR Theta (AI-gated-2)"; GR_TH[0]*r2d; -5; 5; 200; "GR Theta [deg]"; ""; EVENT_GR_COIN && gate(GR_AI[0]*r2d,  0.2,  0.6) && G_X
  5  hist1 GTHG3; "GR Theta (AI-gated-3)"; GR_TH[0]*r2d; -5; 5; 200; "GR Theta [deg]"; ""; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -0.2,  0.2) && G_X
  5  hist1 GTHG4; "GR Theta (AI-gated-4)"; GR_TH[0]*r2d; -5; 5; 200; "GR Theta [deg]"; ""; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -0.6, -0.2) && G_X
  5  hist1 GTHG5; "GR Theta (AI-gated-5)"; GR_TH[0]*r2d; -5; 5; 200; "GR Theta [deg]"; ""; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -1.0, -0.6) && G_X
  5  hist2 GYPH; "GR Phi vs Y"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -1.0,  1.0)
  5  hist2 GYPHG; "GR Phi vs Y"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -1.0,  1.0) && G_X
  5  hist2 GYPHG1; "GR Phi vs Y (AI-gated-1)"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d,  0.6,  1.0) && G_X
  5  hist2 GYPHG2; "GR Phi vs Y (AI-gated-2)"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d,  0.2,  0.6) && G_X
  5  hist2 GYPHG3; "GR Phi vs Y (AI-gated-3)"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -0.2,  0.2) && G_X
  5  hist2 GYPHG4; "GR Phi vs Y (AI-gated-4)"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -0.6, -0.2) && G_X
  5  hist2 GYPHG5; "GR Phi vs Y (AI-gated-5)"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -1.0, -0.6) && G_X
  5  hist2 GAIBIE; "GR Bi vs Ai (for Elastic)"; GR_AI[0]*r2d; -1.25; 1.25; 100; "GR AI [deg]"; GR_BI[0]*r2d; -3; 3; 100; "GR BI [deg]"; EVENT_GR_COIN && G_ELASTIC
 -5  hist2 GAIBIGX; "GR Bi vs Ai (Gated by X)"; GR_AI[0]*r2d; -2; 2; 100; "GR AI [deg]"; GR_BI[0]*r2d; -5; 5; 100; "GR BI [deg]"; EVENT_GR_COIN && GR_RF_G1 && GR_YC_G && G_ELASTIC
  5  hist2 GYCPH; "GR Phi vs Y-C"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -1.0,  1.0)
  5  hist2 GYCPHG; "GR Phi vs Y-C"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -1.0,  1.0) && G_X
  5  hist2 GYCPHG1; "GR Phi vs Y-C (AI-gated-1)"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d,  0.6,  1.0) && G_X
  5  hist2 GYCPHG2; "GR Phi vs Y-C (AI-gated-2)"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d,  0.2,  0.6) && G_X
  5  hist2 GYCPHG3; "GR Phi vs Y-C (AI-gated-3)"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -0.2,  0.2) && G_X
  5  hist2 GYCPHG4; "GR Phi vs Y-C (AI-gated-4)"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -0.6, -0.2) && G_X
  5  hist2 GYCPHG5; "GR Phi vs Y-C (AI-gated-5)"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -1.0, -0.6) && G_X
  5  hist2 GYCPHCG1; "GR Phi-C vs Y-C (AI-gated-1)"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PHC[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d,  0.6,  1.0) && G_X
  5  hist2 GYCPHCG2; "GR Phi-C vs Y-C (AI-gated-2)"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PHC[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d,  0.2,  0.6) && G_X
  5  hist2 GYCPHCG3; "GR Phi-C vs Y-C (AI-gated-3)"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PHC[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -0.2,  0.2) && G_X
  5  hist2 GYCPHCG4; "GR Phi-C vs Y-C (AI-gated-4)"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PHC[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -0.6, -0.2) && G_X
  5  hist2 GYCPHCG5; "GR Phi-C vs Y-C (AI-gated-5)"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PHC[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -1.0, -0.6) && G_X
  5  hist2 GXAI2; "GR X"; GR_X[0]; -500; 500; 5000; "GR X [mm]"; GR_AI[0]*1000; -25; 25; 60; "GR AI [mr]"; EVENT_GR_COIN && GR_TRUE && GR_BI_G
  5  hist2 GXBI2; "GR X"; GR_X[0]; -500; 500; 5000; "GR X [mm]"; GR_BI[0]*1000; -60; 60; 60; "GR BI [mr]"; EVENT_GR_COIN && GR_TRUE && GR_AI_G
 -5  hist2 GXCAI; "GR XC"; GR_XC[0]; -300; -200; 1000; "GR XC [mm]"; GR_AI[0]*r2d; -1.5; 1.5; 60; "GR AI [deg]"; EVENT_GR_COIN
 -5  hist2 GXCBI; "GR XC"; GR_XC[0]; -300; -200; 1000; "GR XC [mm]"; GR_BI[0]*r2d; -4; 4; 60; "GR BI [deg]"; EVENT_GR_COIN
 -5  hist2 GXCAI2; "GR XC"; GR_XC[0]; -500; 500; 5000; "GR XC [mm]"; GR_AI[0]*1000; -25; 25; 60; "GR AI [mr]"; EVENT_GR_COIN && GR_TRUE && GR_BI_G
 -5  hist2 GXCBI2; "GR XC"; GR_XC[0]; -500; 500; 5000; "GR XC [mm]"; GR_BI[0]*1000; -60; 60; 60; "GR BI [mr]"; EVENT_GR_COIN && GR_TRUE && GR_AI_G
 -5  hist2 GEXCAI; "GR AI vs excitation energy-c (true-gated)"; GR_EX_C[0]; 5; 10; 1000; "GR excitation energy [MeV]"; GR_AI[0]*r2d; -1.5; 1.5; 30; "GR AI [deg]"; EVENT_GR_COIN && GR_TRUE && GR_BI_G
 -5  hist2 GEXCBI; "GR BI vs excitation energy-c (true-gated)"; GR_EX_C[0]; 5; 10; 1000; "GR excitation energy [MeV]"; GR_BI[0]*r2d; -4; 4; 40; "GR BI [deg]"; EVENT_GR_COIN && GR_TRUE && GR_AI_G
 -5  hist2 GEXCAI2; "GR AI vs excitation energy-c (true-gated)"; GR_EX_C[0]; 5; 25; 5000; "GR excitation energy [MeV]"; GR_AI[0]*r2d; -1.5; 1.5; 50; "GR AI [deg]"; EVENT_GR_COIN && GR_TRUE && GR_BI_G
 -5  hist2 GEXCBI2; "GR BI vs excitation energy-c (true-gated)"; GR_EX_C[0]; 5; 25; 5000; "GR excitation energy [MeV]"; GR_BI[0]*r2d; -4; 4; 50; "GR BI [deg]"; EVENT_GR_COIN && GR_TRUE && GR_AI_G
 -5  hist2 GEXCYC; "GR YC vs excitation energy-c (PHC-gated)"; GR_EX_C[0]; 0.; 25; 300; "GR excitation energy [MeV]"; GR_YC[0]; -100; 100; 100; "GR YC [mm]"; EVENT_GR_COIN && GR_PHC_G
 -4. com   YC Calibration
 -5  def   GR_AI_GT = gate(GR_TH[0]*r2d,  -3.0,  -1.0)
  5  def   GR_AI_GT = gate(GR_AI[0]*r2d,  -0.5,   0.5)
 -5. com   GR_X Gate E316 09Nov
  6  def   G_X = gate(GR_X[0], -100,  100)
  6  def   G_X1 = gate(GR_X[0], -288, -282)
  6  def   G_X2 = gate(GR_X[0],  -69,  -63)
  6  def   G_X3 = gate(GR_X[0],   34,   41)
  6  def   G_X4 = gate(GR_X[0],  200,  250)
  6  def   G_X5 = gate(GR_X[0],  350,  400)
 -5. com   GR_X Gate for EX
  6  def   G_X1 = gate(GR_EX_C[0],  6, 10)
  6  def   G_X2 = gate(GR_EX_C[0], 10, 14)
  6  def   G_X3 = gate(GR_EX_C[0], 14, 17)
  6  def   G_X4 = gate(GR_EX_C[0], 17, 22)
  6  def   G_X5 = gate(GR_EX_C[0],  6, 22)
  5  hist2 GYPHG1; "GR Phi vs Y"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && GR_AI_GT && G_X1
  5  hist2 GYPHG2; "GR Phi vs Y"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && GR_AI_GT && G_X2
  5  hist2 GYPHG3; "GR Phi vs Y"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && GR_AI_GT && G_X3
  5  hist2 GYPHG4; "GR Phi vs Y"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && GR_AI_GT && G_X4
  5  hist2 GYPHG5; "GR Phi vs Y"; GR_Y[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && GR_AI_GT && G_X5
  5  hist2 GYCPHG1; "GR Phi vs Y-C"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && GR_AI_GT && G_X1
  5  hist2 GYCPHG2; "GR Phi vs Y-C"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && GR_AI_GT && G_X2
  5  hist2 GYCPHG3; "GR Phi vs Y-C"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && GR_AI_GT && G_X3
  5  hist2 GYCPHG4; "GR Phi vs Y-C"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && GR_AI_GT && G_X4
  5  hist2 GYCPHG5; "GR Phi vs Y-C"; GR_YC[0]; -25; 25; 100; "GR Y [mm]"; GR_PH[0]*1000; -15; 15; 100; "GR PH [mr]"; EVENT_GR_COIN && GR_AI_GT && G_X5
  5  hist1 GTHG1; "GR Theta (Gated by AI and X)"; GR_TH[0]*1000; -100; 100; 100; "GR Theta [mr]"; "Counts/ch"; EVENT_GR_COIN && GR_AI_GT && G_X1
  5  hist1 GTHG2; "GR Theta (Gated by AI and X)"; GR_TH[0]*1000; -100; 100; 100; "GR Theta [mr]"; "Counts/ch"; EVENT_GR_COIN && GR_AI_GT && G_X2
  5  hist1 GTHG3; "GR Theta (Gated by AI and X)"; GR_TH[0]*1000; -100; 100; 100; "GR Theta [mr]"; "Counts/ch"; EVENT_GR_COIN && GR_AI_GT && G_X3
  5  hist1 GTHG4; "GR Theta (Gated by AI and X)"; GR_TH[0]*1000; -100; 100; 100; "GR Theta [mr]"; "Counts/ch"; EVENT_GR_COIN && GR_AI_GT && G_X4
  5  hist1 GTHG5; "GR Theta (Gated by AI and X)"; GR_TH[0]*1000; -100; 100; 100; "GR Theta [mr]"; "Counts/ch"; EVENT_GR_COIN && GR_AI_GT && G_X5
 -4. com   GR XC Kimatical Correction
  5  def   GR_XC_KC = polynom(GR_TH3[0]*r2d-GR_ANG, GR_XC_KC_C)/GR_XC_KC_K
 -6  def   GR_XC_KC_K = 23.1/1000 # MeV/mm (E282 06Nov from #6068 28Si, 0+ at 4.980 and 1+ at 11.446)
  6  def   GR_XC_KC_K = 23.6/1000 # MeV/mm (E282 08Nov from #8050 12C see Analysis Note pp. 126)
  6  def   GR_XC_KC_C = { 0.000,  0.000,    0.0000 } # No Correction
 -6  def   GR_XC_KC_C = { 0.000,  0.000,   -0.0040 } # 26Mg at 0deg
 -6  def   GR_XC_KC_C = { 0.000,  0.000,   -0.0036 } # 28Si at 0deg
 -6  def   GR_XC_KC_C = { 0.000, -8.76e-2, -3.43e-3} # 28Si at 12deg
 -6  def   GR_XC_KC_C = { 0.000,  0.000,   -0.0021 } # 48Ca at 0deg
  5  hist1 GXCG; "GR XC (AI<0.2deg)"; GR_XC[0]; -500; 500; 5000; "GR XC [mm]"; "Counts/0.1mm"; EVENT_GR_COIN && GR_TRUE && gate(GR_AI[0]*r2d, -0.2, 0.2)
  5  hist2 GXCTH1; "GR TH vs XC"; GR_XC[0]; -600; 600; 600; "GR XC [mm]"; GR_TH[0]*1000; -60; 100; 60; "GR TH [mr]"; EVENT_GR_COIN && GR_TRUE && GR_BI_G
  5  hist2 GXCTH2; "GR TH vs XC"; GR_XC[0]; -500; 400; 4500; "GR XC [mm]"; GR_TH[0]*1000; -80; 100; 80; "GR TH [mr]"; EVENT_GR_COIN && GR_TRUE && GR_BI_G
  5  hist2 GXCTH3; "GR TH vs XC with kin. corr."; GR_XC[0]+GR_XC_KC[0]; -500; 400; 4500; "GR XC [mm]"; GR_TH[0]*1000; -80; 100; 80; "GR TH [mr]"; EVENT_GR_COIN && GR_TRUE && GR_BI_G
  5  hist2 GXCY1; "GR Y vs XC"; GR_XC[0]; -300; -200; 500; "GR XC [mm]"; GR_Y[0]; -20; 20; 80; "GR Y [mm]"; EVENT_GR_COIN && GR_TRUE && GR_AI_G
  5  hist2 GXCY2; "GR Y vs XC"; GR_XC[0]; -600; 600; 6000; "GR XC [mm]"; GR_Y[0]; -20; 20; 60; "GR Y [mm]"; EVENT_GR_COIN && GR_TRUE && GR_AI_G
  5  hist2 GXCY3; "GR Y vs XC with kin. corr."; GR_XC[0]+GR_XC_KC[0]; -600; 600; 6000; "GR XC [mm]"; GR_Y[0]; -20; 20; 60; "GR Y [mm]"; EVENT_GR_COIN && GR_TRUE && GR_AI_G
 -5. com   Gated 1D histograms
  6  hist1 GXCTHG0; "GR XC (TH-Gate-0)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_TH[0]*r2d, -35, -25)
  6  hist1 GXCTHG1; "GR XC (TH-Gate-1)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_TH[0]*r2d, -25, -15)
  6  hist1 GXCTHG2; "GR XC (TH-Gate-2)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_TH[0]*r2d, -15, -5)
  6  hist1 GXCTHG3; "GR XC (TH-Gate-3)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_TH[0]*r2d, -5, 5)
  6  hist1 GXCTHG4; "GR XC (TH-Gate-4)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_TH[0]*r2d, 5, 15)
  6  hist1 GXCTHG5; "GR XC (TH-Gate-5)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_TH[0]*r2d, 15, 25)
  6  hist1 GXCTHG6; "GR XC (TH-Gate-6)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_TH[0]*r2d, 25, 35)
  6  hist1 GXCTHG7; "GR XC (TH-Gate-7)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_TH[0]*r2d, 35, 45)
  6  hist1 GXCTHG8; "GR XC (TH-Gate-8)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_TH[0]*r2d, 45, 55)
  6  hist1 GXCTHG9; "GR XC (TH-Gate-9)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_TH[0]*r2d, 55, 65)
  6  hist1 GXCYG0; "GR XC (Y-Gate-0)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_Y[0], -17.5, -12.5)
  6  hist1 GXCYG1; "GR XC (Y-Gate-1)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_Y[0], -12.5, -7.5)
  6  hist1 GXCYG2; "GR XC (Y-Gate-2)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_Y[0], -7.5, -2.5)
  6  hist1 GXCYG3; "GR XC (Y-Gate-3)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_Y[0], -2.5, 2.5)
  6  hist1 GXCYG4; "GR XC (Y-Gate-4)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_Y[0], 2.5, 7.5)
  6  hist1 GXCYG5; "GR XC (Y-Gate-5)"; GR_XC[0]+GR_XC_KC[0]; -500; 500; 5000; "GR XC [mm]"; ""; EVENT_GR_COIN && GR_TRUE && GR_BI_G && gate(GR_Y[0], 7.5, 12.5)
 -3. com   Sieve Slit Data
  4  hist2 GAIBI; "GR BI vs AI"; GR_AI[0]*r2d; -1.5; 1.5; 60; "GR AI [deg]"; GR_BI[0]*r2d; -4; 4; 80; "GR BI [deg]"; EVENT_GR_COIN
  4  hist2 GAIBIT; "GR BI vs AI (Gate Test)"; GR_AI[0]*r2d; -1.5; 1.5; 60; "GR AI [deg]"; GR_BI[0]*r2d; -4; 4; 80; "GR BI [deg]"; EVENT_GR_COIN && GR_AI_G && GR_BI_G
  4  hist2 GAIBIX1; "GR BI vs AI"; GR_AI[0]*r2d; -3.0; 0.0; 150; "GR AI [deg]"; GR_BI[0]*r2d; -4; 4; 400; "GR BI [deg]"; EVENT_GR_COIN && gate(GR_X[0], -500, -300) # for #4094
  4  hist2 GAIBIX2; "GR BI vs AI"; GR_AI[0]*r2d; -1.5; 1.5; 150; "GR AI [deg]"; GR_BI[0]*r2d; -4; 4; 400; "GR BI [deg]"; EVENT_GR_COIN && gate(GR_X[0], -200, -100) # for #4094
  4  hist2 GAIBIX3; "GR BI vs AI"; GR_AI[0]*r2d; -1.5; 1.5; 150; "GR AI [deg]"; GR_BI[0]*r2d; -4; 4; 400; "GR BI [deg]"; EVENT_GR_COIN && gate(GR_X[0], 130, 210) # for #4094
  4  hist2 GAIBIX4; "GR BI vs AI"; GR_AI[0]*r2d; -1.5; 1.5; 150; "GR AI [deg]"; GR_BI[0]*r2d; -4; 4; 400; "GR BI [deg]"; EVENT_GR_COIN && gate(GR_X[0], -306, -226) # for #4094
  4  hist2 GAIBIX5; "GR BI vs AI"; GR_AI[0]*r2d; -1.5; 1.5; 150; "GR AI [deg]"; GR_BI[0]*r2d; -4; 4; 400; "GR BI [deg]"; EVENT_GR_COIN && gate(GR_X[0], 10, 90) # for #4094
  4  hist2 GAIBIX6; "GR BI vs AI"; GR_AI[0]*r2d; -1.5; 1.5; 150; "GR AI [deg]"; GR_BI[0]*r2d; -4; 4; 400; "GR BI [deg]"; EVENT_GR_COIN && gate(GR_X[0], 307, 387) # for #4094
 -4  hist2 GXAI; "GR AI vs X"; GR_X[0]; -500; 0; 1000; "GR X [mm]"; GR_AI[0]*r2d; -1.5; 1.5; 60; "GR AI [deg]"; EVENT_GR_COIN && GR_TRUE
 -4  hist2 GXCAI; "GR AI vs XC"; GR_XC[0]; -500; 0; 1000; "GR XC [mm]"; GR_AI[0]*r2d; -1.5; 1.5; 60; "GR AI [deg]"; EVENT_GR_COIN && GR_TRUE
 -4  hist2 GXBI; "GR BI vs X"; GR_X[0]; -500; 0; 1000; "GR X [mm]"; GR_BI[0]*r2d; -4; 4; 80; "GR BI [deg]"; EVENT_GR_COIN && GR_TRUE
 -4  hist2 GXCBI; "GR BI vs XC"; GR_XC[0]; -500; 0; 1000; "GR XC [mm]"; GR_BI[0]*r2d; -4; 4; 80; "GR BI [deg]"; EVENT_GR_COIN && GR_TRUE
 -1  com   LAS
 -3  com   LAS ADC
 -4  com   LAS ADC
  5  hist1 LADC1L; "LAS ADC 1L"; LAS_ADC[1]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN
  5  hist1 LADC1R; "LAS ADC 1R"; LAS_ADC[2]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN
  5  hist1 LADC2L; "LAS ADC 2L"; LAS_ADC[3]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN
  5  hist1 LADC2R; "LAS ADC 2R"; LAS_ADC[4]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN
  5  hist1 LADC3L; "LAS ADC 3L"; LAS_ADC[5]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN
  5  hist1 LADC3R; "LAS ADC 3R"; LAS_ADC[6]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN
 -5  hist1 LADC4L; "LAS ADC 4L"; LAS_ADC[7]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[7]
 -5  hist1 LADC4R; "LAS ADC 4R"; LAS_ADC[8]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[8]
 -5  hist1 LADC5L; "LAS ADC 5L"; LAS_ADC[9]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[9]
 -5  hist1 LADC5R; "LAS ADC 5R"; LAS_ADC[10]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[10]
 -5  hist1 LADC6L; "LAS ADC 6L"; LAS_ADC[11]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[11]
 -5  hist1 LADC6R; "LAS ADC 6R"; LAS_ADC[12]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[12]
 -4. com   LAS ADC VDC-Gated
 -5  hist1 LADC1LG; "LAS ADC 1L"; LAS_ADC[1]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[1]&&LAS_RAYID[0]==0
 -5  hist1 LADC1RG; "LAS ADC 1R"; LAS_ADC[2]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[2]&&LAS_RAYID[0]==0
 -5  hist1 LADC2LG; "LAS ADC 2L"; LAS_ADC[3]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[3]&&LAS_RAYID[0]==0
 -5  hist1 LADC2RG; "LAS ADC 2R"; LAS_ADC[4]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[4]&&LAS_RAYID[0]==0
 -5  hist1 LADC3LG; "LAS ADC 3L"; LAS_ADC[5]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[5]&&LAS_RAYID[0]==0
 -5  hist1 LADC3RG; "LAS ADC 3R"; LAS_ADC[6]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[6]&&LAS_RAYID[0]==0
 -5  hist1 LADC4LG; "LAS ADC 4L"; LAS_ADC[7]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[7]&&LAS_RAYID[0]==0
 -5  hist1 LADC4RG; "LAS ADC 4R"; LAS_ADC[8]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[8]&&LAS_RAYID[0]==0
 -5  hist1 LADC5LG; "LAS ADC 5L"; LAS_ADC[9]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[9]&&LAS_RAYID[0]==0
 -5  hist1 LADC5RG; "LAS ADC 5R"; LAS_ADC[10]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[10]&&LAS_RAYID[0]==0
 -5  hist1 LADC6LG; "LAS ADC 6L"; LAS_ADC[11]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[11]&&LAS_RAYID[0]==0
 -5  hist1 LADC6RG; "LAS ADC 6L"; LAS_ADC[12]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN&&LAS_TDC[12]&&LAS_RAYID[0]==0
 -4. com   LAS DE
 -5  hist1 LDE1; "LAS MEAN ADC 1"; LAS_MADC[1]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[1]
 -5  hist1 LDE2; "LAS MEAN ADC 2"; LAS_MADC[2]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[2]
 -5  hist1 LDE3; "LAS MEAN ADC 3"; LAS_MADC[3]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[3]
 -5  hist1 LDE4; "LAS MEAN ADC 4"; LAS_MADC[4]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[4]
 -5  hist1 LDE5; "LAS MEAN ADC 5"; LAS_MADC[5]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[5]
 -5  hist1 LDE6; "LAS MEAN ADC 6"; LAS_MADC[6]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[6]
 -4. com   LAS DE VDC-Gated
 -5  hist1 LDE1G; "LAS MEAN ADC 1"; LAS_MADC[1]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[1]&&LAS_RAYID[0]==0
  5  hist1 LDE2G; "LAS MEAN ADC 2"; LAS_MADC[2]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[2]&&LAS_RAYID[0]==0
 -5  hist1 LDE3G; "LAS MEAN ADC 3"; LAS_MADC[3]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[3]&&LAS_RAYID[0]==0
 -5  hist1 LDE4G; "LAS MEAN ADC 4"; LAS_MADC[4]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[4]&&LAS_RAYID[0]==0
  5  hist1 LDE5G; "LAS MEAN ADC 5"; LAS_MADC[5]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[5]&&LAS_RAYID[0]==0
 -5  hist1 LDE6G; "LAS MEAN ADC 6"; LAS_MADC[6]; 1; 1500; 500; ""; ""; EVENT_LAS_COIN&&LAS_TPOS[6]&&LAS_RAYID[0]==0
 -4  com   LAS ADC Correlation
 -5  hist2 LADC1LR; "LAS ADC 1R vs 1L"; LAS_ADC[1]; 0; 500; 50; "LAS ADC 1L [ch]"; LAS_ADC[2]; 0; 500; 50; "LAS ADC 1R [ch]"; EVENT_LAS_COIN&&LAS_TDC[1]&&LAS_TDC[2]
 -5  hist2 LADC2LR; "LAS ADC 2R vs 2L"; LAS_ADC[3]; 0; 500; 50; "LAS ADC 2L [ch]"; LAS_ADC[4]; 0; 500; 50; "LAS ADC 2R [ch]"; EVENT_LAS_COIN&&LAS_TDC[3]&&LAS_TDC[4]
  5  hist2 LADC3LR; "LAS ADC 3R vs 3L"; LAS_ADC[5]; 0; 500; 50; "LAS ADC 3L [ch]"; LAS_ADC[6]; 0; 500; 50; "LAS ADC 3R [ch]"; EVENT_LAS_COIN&&LAS_TDC[5]&&LAS_TDC[6]
 -5  hist2 LADC4LR; "LAS ADC 4R vs 4L"; LAS_ADC[7]; 0; 500; 50; "LAS ADC 4L [ch]"; LAS_ADC[8]; 0; 500; 50; "LAS ADC 4R [ch]"; EVENT_LAS_COIN&&LAS_TDC[7]&&LAS_TDC[8]
  5  hist2 LADC5LR; "LAS ADC 5R vs 5L"; LAS_ADC[9]; 0; 500; 50; "LAS ADC 5L [ch]"; LAS_ADC[10]; 0; 500; 50; "LAS ADC 5R [ch]"; EVENT_LAS_COIN&&LAS_TDC[9]&&LAS_TDC[10]
 -5  hist2 LADC6LR; "LAS ADC 6R vs 6L"; LAS_ADC[11]; 0; 500; 50; "LAS ADC 6L [ch]"; LAS_ADC[12]; 0; 500; 50; "LAS ADC 6R [ch]"; EVENT_LAS_COIN&&LAS_TDC[11]&&LAS_TDC[12]
 -4. com   LAS DE Correlation
 -5  hist2 LDE14; "LAS MEAN ADC 4 vs 1"; LAS_MADC[1]; 1; 1500; 50; "LAS Mean ADC 1"; LAS_MADC[4]; 1; 1500; 50; "LAS Mean ADC 4"; EVENT_LAS_COIN&&LAS_TPOS[1]&&LAS_TPOS[4]
  5  hist2 LDE35; "LAS MEAN ADC 5 vs 3"; LAS_MADC[3]; 1; 1500; 50; "LAS Mean ADC 3"; LAS_MADC[5]; 1; 1500; 50; "LAS Mean ADC 5"; EVENT_LAS_COIN&&LAS_TPOS[2]&&LAS_TPOS[5]
 -5  hist2 LDE25; "LAS MEAN ADC 5 vs 2"; LAS_MADC[2]; 1; 1500; 50; "LAS Mean ADC 2"; LAS_MADC[5]; 1; 1500; 50; "LAS Mean ADC 5"; EVENT_LAS_COIN&&LAS_TPOS[2]&&LAS_TPOS[5]
 -5  hist2 LDE36; "LAS MEAN ADC 6 vs 3"; LAS_MADC[3]; 1; 1500; 50; "LAS Mean ADC 3"; LAS_MADC[6]; 1; 1500; 50; "LAS Mean ADC 6"; EVENT_LAS_COIN&&LAS_TPOS[3]&&LAS_TPOS[6]
 -3. com   LAS ADC vs X
 -4  hist2 LXADC1LG; "LAS ADC 1L vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[1]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[1] && LAS_RAYID[0]==0
 -4  hist2 LXADC1RG; "LAS ADC 1R vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[2]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[2] && LAS_RAYID[0]==0
 -4  hist2 LXADC2LG; "LAS ADC 2L vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[3]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[3] && LAS_RAYID[0]==0
 -4  hist2 LXADC2RG; "LAS ADC 2R vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[4]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[4] && LAS_RAYID[0]==0
 -4  hist2 LXADC3LG; "LAS ADC 3L vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[5]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[5] && LAS_RAYID[0]==0
 -4  hist2 LXADC3RG; "LAS ADC 3R vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[6]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[6] && LAS_RAYID[0]==0
 -4  hist2 LXADC4LG; "LAS ADC 4L vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[7]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[7] && LAS_RAYID[0]==0
 -4  hist2 LXADC4RG; "LAS ADC 4R vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[8]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[8] && LAS_RAYID[0]==0
 -4  hist2 LXADC5LG; "LAS ADC 5L vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[9]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[9] && LAS_RAYID[0]==0
 -4  hist2 LXADC5RG; "LAS ADC 5R vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[10]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[10] && LAS_RAYID[0]==0
 -4  hist2 LXADC6LG; "LAS ADC 6L vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[11]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[11] && LAS_RAYID[0]==0
 -4  hist2 LXADC6RG; "LAS ADC 6R vs LAS_X"; LAS_X[0]; -600; 600; 50; ""; LAS_ADC[12]; 0; 800; 50; ""; EVENT_LAS_COIN && LAS_TDC[12] && LAS_RAYID[0]==0
 -4  hist2 LXADC1L; "LAS ADC 1L vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[1]; 0; 800; 100; ""; EVENT_LAS_COIN
 -4  hist2 LXADC1R; "LAS ADC 1R vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[2]; 0; 800; 100; ""; EVENT_LAS_COIN
 -4  hist2 LWU2ADC2L; "LAS ADC 2L vs LAS_WIRE_U2"; LAS_WIRE_U2; 0; 250; 100; ""; LAS_ADC[3]; 0; 2048; 100; ""; EVENT_LAS_COIN # LAS ADC 2L vs LAS_WIRE_U2
 -4  hist2 LXADC2R; "LAS ADC 2R vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[4]; 0; 2048; 100; ""; EVENT_LAS_COIN
  4  hist2 LXADC3L; "LAS ADC 3L vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[5]; 0; 2048; 100; ""; EVENT_LAS_COIN
  4  hist2 LXADC3R; "LAS ADC 3R vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[6]; 0; 2048; 100; ""; EVENT_LAS_COIN
 -4  hist2 LXADC4L; "LAS ADC 4L vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[7]; 0; 2048; 100; ""; EVENT_LAS_COIN
 -4  hist2 LXADC4R; "LAS ADC 4R vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[8]; 0; 2048; 100; ""; EVENT_LAS_COIN
  4  hist2 LXADC5L; "LAS ADC 5L vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[9]; 0; 2048; 100; ""; EVENT_LAS_COIN
  4  hist2 LXADC5R; "LAS ADC 5R vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[10]; 0; 2048; 100; ""; EVENT_LAS_COIN
 -4  hist2 LXADC6L; "LAS ADC 6L vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[11]; 0; 2048; 100; ""; EVENT_LAS_COIN
 -4  hist2 LXADC6R; "LAS ADC 6R vs LAS_X"; LAS_X[0]; -1000; 1000; 100; ""; LAS_ADC[12]; 0; 2048; 100; ""; EVENT_LAS_COIN
 -3. com   LAS TDC
 -4  hist1 LTDC1L; "LAS TDC 1L"; LAS_TDC[1]; 1; 2048; 512; ""; ""; 
 -4  hist1 LTDC1R; "LAS TDC 1R"; LAS_TDC[2]; 1; 2048; 512; ""; ""; 
 -4  hist1 LTDC2L; "LAS TDC 2L"; LAS_TDC[3]; 1; 2048; 512; ""; ""; 
 -4  hist1 LTDC2R; "LAS TDC 2R"; LAS_TDC[4]; 1; 2048; 512; ""; ""; 
  4  hist1 LTDC3L; "LAS TDC 3L"; LAS_TDC[5]; 1; 2048; 512; ""; ""; 
  4  hist1 LTDC3R; "LAS TDC 3R"; LAS_TDC[6]; 1; 2048; 512; ""; ""; 
 -4  hist1 LTDC4L; "LAS TDC 4L"; LAS_TDC[7]; 1; 2048; 512; ""; ""; 
 -4  hist1 LTDC4R; "LAS TDC 4R"; LAS_TDC[8]; 1; 2048; 512; ""; ""; 
  4  hist1 LTDC5L; "LAS TDC 5L"; LAS_TDC[9]; 1; 2048; 512; ""; ""; 
  4  hist1 LTDC5R; "LAS TDC 5R"; LAS_TDC[10]; 1; 2048; 512; ""; ""; 
 -4  hist1 LTDC6L; "LAS TDC 6L"; LAS_TDC[11]; 1; 2048; 512; ""; ""; 
 -4  hist1 LTDC6R; "LAS TDC 6R"; LAS_TDC[12]; 1; 2048; 512; ""; ""; 
 -4  hist2 LTDC1LR; "LAS TDC 1L"; LAS_TDC[1]; 1; 2048; 64; "LAS TDC 1L"; LAS_TDC[2]; 1; 2048; 64; "LAS TDC 1R"; 
 -4  hist2 LTDC2LR; "LAS TDC 2L"; LAS_TDC[3]; 1; 2048; 64; "LAS TDC 2L"; LAS_TDC[4]; 1; 2048; 64; "LAS TDC 2R"; 
 -4  hist2 LTDC3LR; "LAS TDC 3L"; LAS_TDC[5]; 1; 2048; 64; "LAS TDC 3L"; LAS_TDC[6]; 1; 2048; 64; "LAS TDC 3R"; 
 -4  hist2 LTDC4LR; "LAS TDC 4L"; LAS_TDC[7]; 1; 2048; 64; "LAS TDC 4L"; LAS_TDC[8]; 1; 2048; 64; "LAS TDC 4R"; 
 -4  hist2 LTDC5LR; "LAS TDC 5L"; LAS_TDC[9]; 1; 2048; 64; "LAS TDC 5L"; LAS_TDC[10]; 1; 2048; 64; "LAS TDC 5R"; 
 -4  hist2 LTDC6LR; "LAS TDC 6L"; LAS_TDC[11]; 1; 2048; 64; "LAS TDC 6L"; LAS_TDC[12]; 1; 2048; 64; "LAS TDC 6R"; 
 -4  hist1 LTPOS1; "LAS TDC POS 1"; LAS_TPOS[1]; -600; 200; 400; ""; ""; 
 -4  hist1 LTPOS2; "LAS TDC POS 2"; LAS_TPOS[2]; -200; 400; 300; ""; ""; 
 -4  hist1 LTPOS3; "LAS TDC POS 3"; LAS_TPOS[3]; -600; 200; 400; ""; ""; 
 -4  hist1 LTPOS4; "LAS TDC POS 4"; LAS_TPOS[4]; -600; 200; 400; ""; ""; 
 -4  hist1 LTPOS5; "LAS TDC POS 5"; LAS_TPOS[5]; -600; 200; 400; ""; ""; 
 -4  hist1 LTPOS6; "LAS TDC POS 6"; LAS_TPOS[6]; -600; 200; 400; ""; ""; 
 -4  hist1 LRF1; "LAS RF 1"; LAS_RF[1]; 1; 2048; 512; ""; ""; EVENT_GR_COIN
  4  hist1 LRF1; "LAS RF 1"; LAS_RF[1]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN
  4  hist1 LRF2; "LAS RF 2"; LAS_RF[2]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN
  4  hist1 LRF3; "LAS RF 3"; LAS_RF[3]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN
 -4  hist1 LRFC; "LAS RF Corrected"; LAS_RFC[0]; -50; 50; 1000; "LAS RFC [nsec]"; "Counts/0.1nsec"; EVENT_LAS_COIN
 -4  hist1 LRF1T; "LAS RF 1 (PI-Gate)"; LAS_RF[1]; 1; 2048; 512; "RF [ch]"; "Counts/4ch"; EVENT_LAS_COIN && LAS_PI
 -4  hist1 LRF2T; "LAS RF 2 (PI-Gate)"; LAS_RF[2]; 1; 2048; 512; "RF [ch]"; "Counts/4ch"; EVENT_LAS_COIN && LAS_PI
 -4  hist1 LRF3T; "LAS RF 3 (PI-Gate)"; LAS_RF[3]; 1; 2048; 512; "RF [ch]"; "Counts/4ch"; EVENT_LAS_COIN && LAS_PI
 -4  hist1 LRF1G; "LAS RF 1 VDC Gate"; LAS_RF[1]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN && LAS_RAYID==0
 -4  hist1 LRF2G; "LAS RF 2 VDC Gate"; LAS_RF[2]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN && LAS_RAYID==0
 -4  hist1 LRF3G; "LAS RF 3 VDC Gate"; LAS_RF[3]; 1; 2048; 512; ""; ""; EVENT_LAS_COIN && LAS_RAYID==0
 -4  hist2 LDE1RF1; "LAS DE 1 vs LAS RF 1"; LAS_RF[1]; 0; 2048; 100; "LAS RF1 [ch]"; LAS_MADC[1]; 0; 2048; 100; "LAS  DE 1"; EVENT_LAS_COIN && LAS_TDC[1] &&LAS_TDC[2]
 -4  hist2 LDE2RF1; "LAS DE 2 vs LAS RF 1"; LAS_RF[1]; 0; 2048; 100; "LAS RF1 [ch]"; LAS_MADC[2]; 0; 2048; 100; "LAS  DE 2"; EVENT_LAS_COIN && LAS_TDC[3] && LAS_TDC[4]
 -4  hist2 LDE2RF3; "LAS DE 2 vs LAS RF 3"; LAS_RF[3]; 0; 2048; 100; "LAS RF3 [ch]"; LAS_MADC[2]; 0; 2048; 100; "LAS  DE 2"; EVENT_LAS_COIN && LAS_TDC[3] && LAS_TDC[4]
 -4  hist2 LDE3RF1; "LAS DE 3 vs LAS RF 1"; LAS_RF[1]; 0; 2048; 100; "LAS RF1 [ch]"; LAS_MADC[3]; 0; 2048; 100; "LAS  DE 3"; EVENT_LAS_COIN && LAS_TDC[5] && LAS_TDC[6]
 -4  hist2 LDE1RF1P; "LAS DE 1 vs LAS RF 1 (PI)"; LAS_RF[1]; 0; 2048; 100; "LAS RF1 [ch]"; LAS_MADC[1]; 0; 2048; 100; "LAS  DE 1"; EVENT_LAS_COIN && LAS_RAYID==0 && LAS_PI && LAS_TDC[1] && LAS_TDC[2]
 -4  hist2 LDE2RF1P; "LAS DE 2 vs LAS RF 1 (PI)"; LAS_RF[1]; 0; 2048; 100; "LAS RF1 [ch]"; LAS_MADC[2]; 0; 2048; 100; "LAS  DE 2"; EVENT_LAS_COIN && LAS_RAYID==0 && LAS_PI && LAS_TDC[3] && LAS_TDC[4]
 -4  hist2 LDE3RF1P; "LAS DE 3 vs LAS RF 1 (PI)"; LAS_RF[1]; 0; 2048; 100; "LAS RF1 [ch]"; LAS_MADC[3]; 0; 2048; 100; "LAS  DE 3"; EVENT_LAS_COIN && LAS_RAYID==0 && LAS_PI && LAS_TDC[5] && LAS_TDC[6]
 -3. com   LAS VDC
 -4  hist1 LWIREX1; "LAS WIRE X1"; LAS_WIRE_X1; 0; 272; 272; ""; ""; 
  4  hist1 LWIREU1; "LAS WIRE U1"; LAS_WIRE_U1; 0; 256; 256; ""; ""; 
  4  hist1 LWIREV1; "LAS WIRE V1"; LAS_WIRE_V1; 0; 256; 256; ""; ""; 
 -4  hist1 LWIREX2; "LAS WIRE X2"; LAS_WIRE_X2; 0; 272; 272; ""; ""; 
  4  hist1 LWIREU2; "LAS WIRE U2"; LAS_WIRE_U2; 0; 256; 256; ""; ""; 
  4  hist1 LWIREV2; "LAS WIRE V2"; LAS_WIRE_V2; 0; 256; 256; ""; ""; 
 -4  hist1 LWIREX1S; "LAS WIRE X1"; LAS_WIRE_X1; 0; 272; 272; ""; ""; EVENT_2ND_SAMP
 -4  hist1 LWIREU1S; "LAS WIRE U1"; LAS_WIRE_U1; 0; 256; 256; ""; ""; EVENT_2ND_SAMP
 -4  hist1 LWIREV1S; "LAS WIRE V1"; LAS_WIRE_V1; 0; 256; 256; ""; ""; EVENT_2ND_SAMP
 -4  hist1 LWIREX2S; "LAS WIRE X2"; LAS_WIRE_X2; 0; 272; 272; ""; ""; EVENT_2ND_SAMP
 -4  hist1 LWIREV2S; "LAS WIRE V2"; LAS_WIRE_V2; 0; 256; 256; ""; ""; EVENT_2ND_SAMP
 -4  hist1 LWIREX1; "LAS WIRE X1"; LAS_WIRER_X1; 0; 272; 272; ""; ""; 
 -4  hist1 LWIREU1; "LAS WIRE U1"; LAS_WIRER_U1; 0; 256; 256; ""; ""; 
 -4  hist1 LWIREV1; "LAS WIRE V1"; LAS_WIRER_V1; 0; 256; 256; ""; ""; 
 -4  hist1 LWIREX2; "LAS WIRE X2"; LAS_WIRER_X2; 0; 272; 272; ""; ""; 
 -4  hist1 LWIREU2; "LAS WIRE U2"; LAS_WIRER_U2; 0; 256; 256; ""; ""; 
 -4  hist1 LWIREV2; "LAS WIRE V2"; LAS_WIRER_V2; 0; 256; 256; ""; ""; 
 -4  hist1 LTDCX1; "LAS TDC X1"; LAS_TDCR_X1; 0; 1024; 1024; ""; ""; 
 -4  hist1 LTDCU1; "LAS TDC U1"; LAS_TDCR_U1; 0; 1024; 1024; ""; ""; 
 -4  hist1 LTDCV1; "LAS TDC V1"; LAS_TDCR_V1; 0; 1024; 1024; ""; ""; 
 -4  hist1 LTDCX2; "LAS TDC X2"; LAS_TDCR_X2; 0; 1024; 1024; ""; ""; 
 -4  hist1 LTDCU2; "LAS TDC U2"; LAS_TDCR_U2; 0; 1024; 1024; ""; ""; 
 -4  hist1 LTDCV2; "LAS TDC V2"; LAS_TDCR_V2; 0; 1024; 1024; ""; ""; 
 -4  hist2 LWTDCX1; "LAS VDC TDC X1 vs WIRE X1"; LAS_WIRER_X1; 0; 192; 192; ""; LAS_TDC_X1; 100; 500; 100; ""; 
 -4  hist2 LWTDCU1; "LAS VDC TDC U1 vs WIRE U1"; LAS_WIRER_U1; 0; 208; 208; ""; LAS_TDC_U1; 100; 500; 100; ""; 
 -4  hist2 LWTDCV1; "LAS VDC TDC V1 vs WIRE V1"; LAS_WIRER_V1; 0; 208; 208; ""; LAS_TDC_V1; 100; 500; 100; ""; 
 -4  hist2 LWTDCX2; "LAS VDC TDC X2 vs WIRE X2"; LAS_WIRER_X2; 0; 192; 192; ""; LAS_TDC_X2; 100; 500; 100; ""; 
 -4  hist2 LWTDCU2; "LAS VDC TDC U2 vs WIRE U2"; LAS_WIRER_U2; 0; 208; 208; ""; LAS_TDC_U2; 100; 500; 100; ""; 
 -4  hist2 LWTDCV2; "LAS VDC TDC V2 vs WIRE V2"; LAS_WIRER_V2; 0; 208; 208; ""; LAS_TDC_U2; 100; 500; 100; ""; 
 -4  hist1 LDLX1; "LAS Drift Length X1"; LAS_DRIFT_X1; -0.5; 1.5; 200; ""; ""; 
 -4  hist1 LDLU1; "LAS Drift Length U1"; LAS_DRIFT_U1; -0.5; 1.5; 200; ""; ""; 
 -4  hist1 LDLV1; "LAS Drift Length V1"; LAS_DRIFT_V1; -0.5; 1.5; 200; ""; ""; 
 -4  hist1 LDLX2; "LAS Drift Length X2"; LAS_DRIFT_X2; -0.5; 1.5; 200; ""; ""; 
 -4  hist1 LDLU2; "LAS Drift Length U2"; LAS_DRIFT_U2; -0.5; 1.5; 200; ""; ""; 
 -4  hist1 LDLV2; "LAS Drift Length V2"; LAS_DRIFT_V2; -0.5; 1.5; 200; ""; ""; 
 -4  hist1 LNHITX1; "LAS NHIT X1"; LAS_NHIT_X1; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNHITU1; "LAS NHIT U1"; LAS_NHIT_U1; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNHITV1; "LAS NHIT V1"; LAS_NHIT_V1; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNHITX2; "LAS NHIT X2"; LAS_NHIT_X2; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNHITU2; "LAS NHIT U2"; LAS_NHIT_U2; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNHITV2; "LAS NHIT V2"; LAS_NHIT_V2; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNCLUSTX1; "LAS NCLUST X1"; LAS_NCLUST_X1; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNCLUSTU1; "LAS NCLUST U1"; LAS_NCLUST_U1; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNCLUSTV1; "LAS NCLUST V1"; LAS_NCLUST_V1; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNCLUSTX2; "LAS NCLUST X2"; LAS_NCLUST_X2; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNCLUSTU2; "LAS NCLUST U2"; LAS_NCLUST_U2; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LNCLUSTV2; "LAS NCLUST V2"; LAS_NCLUST_V2; 0; 32; 32; ""; ""; EVENT_LAS_COIN
 -4  hist1 LCSX1; "LAS CLUST SIZE X1"; LAS_CLUSTSZ_X1; 0; 32; 32; ""; ""; 
 -4  hist1 LCSU1; "LAS CLUST SIZE U1"; LAS_CLUSTSZ_U1; 0; 32; 32; ""; ""; 
 -4  hist1 LCSV1; "LAS CLUST SIZE V1"; LAS_CLUSTSZ_V1; 0; 32; 32; ""; ""; 
 -4  hist1 LCSX2; "LAS CLUST SIZE X2"; LAS_CLUSTSZ_X2; 0; 32; 32; ""; ""; 
 -4  hist1 LCSU2; "LAS CLUST SIZE U2"; LAS_CLUSTSZ_U2; 0; 32; 32; ""; ""; 
 -4  hist1 LCSV2; "LAS CLUST SIZE V2"; LAS_CLUSTSZ_V2; 0; 32; 32; ""; ""; 
 -4  hist1 LPOSX1; "LAS POS X1"; LAS_POS_X1; 0; 272; 272; ""; ""; 
 -4  hist1 LPOSU1; "LAS POS U1"; LAS_POS_U1; 0; 256; 256; ""; ""; 
 -4  hist1 LPOSV1; "LAS POS V1"; LAS_POS_V1; 0; 256; 256; ""; ""; 
 -4  hist1 LPOSX2; "LAS POS X2"; LAS_POS_X2; 0; 272; 272; ""; ""; 
 -4  hist1 LPOSU2; "LAS POS U2"; LAS_POS_U2; 0; 256; 256; ""; ""; 
 -4  hist1 LPOSV2; "LAS POS V2"; LAS_POS_V2; 0; 256; 256; ""; ""; 
 -4  hist1 LPOSIDX1; "LAS POSID X1"; LAS_POSID_X1; -10; 40; 50; ""; ""; EVENT_LAS_COIN
 -4  hist1 LPOSIDU1; "LAS POSID U1"; LAS_POSID_U1; -10; 40; 50; ""; ""; EVENT_LAS_COIN
 -4  hist1 LPOSIDV1; "LAS POSID V1"; LAS_POSID_V1; -10; 40; 50; ""; ""; EVENT_LAS_COIN
 -4  hist1 LPOSIDX2; "LAS POSID X2"; LAS_POSID_X2; -10; 40; 50; ""; ""; EVENT_LAS_COIN
 -4  hist1 LPOSIDU2; "LAS POSID U2"; LAS_POSID_U2; -10; 40; 50; ""; ""; EVENT_LAS_COIN
 -4  hist1 LPOSIDV2; "LAS POSID V2"; LAS_POSID_V2; -10; 40; 50; ""; ""; EVENT_LAS_COIN
 -4  hist2 LRESX1A; "LAS Resolution X1(smaler)"; (abs(LAS_TDL_X1[0])-LAS_SDL_X1[0])*LAS_PL_X1[5]; -10.0; 10.0; 100; "Zansa"; (LAS_TDL_X1[0])*LAS_PL_X1[5]; -10; 10; 100; "Displacement from a wire (Tracked)"; EVENT_LAS_COIN
 -4  hist2 LRESX1B; "LAS Resolution X1(larger)"; (abs(LAS_TDL_X1[1])-LAS_SDL_X1[1])*LAS_PL_X1[5]; -10.0; 10.0; 100; "Zansa"; (LAS_TDL_X1[1])*LAS_PL_X1[5]; -10; 10; 100; "Displacement from a wire (Tracked)"; EVENT_LAS_COIN
 -4  hist2 LRESU1A; "LAS Resolution U1(smaler)"; (abs(LAS_TDL_U1[0])-LAS_SDL_U1[0])*LAS_PL_U1[5]; -10.0; 10.0; 100; "Zansa"; (LAS_TDL_U1[0])*LAS_PL_U1[5]; -10; 10; 100; "Displacement from a wire (Tracked)"; EVENT_LAS_COIN
 -4  hist2 LRESU1B; "LAS Resolution U1(larger)"; (abs(LAS_TDL_U1[1])-LAS_SDL_U1[1])*LAS_PL_U1[5]; -10.0; 10.0; 100; "Zansa"; (LAS_TDL_U1[1])*LAS_PL_U1[5]; -10; 10; 100; "Displacement from a wire (Tracked)"; EVENT_LAS_COIN
 -4  hist2 LRESX2A; "LAS Resolution X2(smaler)"; (abs(LAS_TDL_X2[0])-LAS_SDL_X2[0])*LAS_PL_X2[5]; -10.0; 10.0; 100; "Zansa"; (LAS_TDL_X2[0])*LAS_PL_X2[5]; -10; 10; 100; "Displacement from a wire (Tracked)"; EVENT_LAS_COIN
 -4  hist2 LRESX2B; "LAS Resolution X2(larger)"; (abs(LAS_TDL_X2[1])-LAS_SDL_X2[1])*LAS_PL_X2[5]; -10.0; 10.0; 100; "Zansa"; (LAS_TDL_X2[1])*LAS_PL_X2[5]; -10; 10; 100; "Displacement from a wire (Tracked)"; EVENT_LAS_COIN
 -4  hist2 LRESU2A; "LAS Resolution U2(smaler)"; (abs(LAS_TDL_U2[0])-LAS_SDL_U2[0])*LAS_PL_U2[5]; -10.0; 10.0; 100; "Zansa"; (LAS_TDL_U2[0])*LAS_PL_U2[5]; -10; 10; 100; "Displacement from a wire (Tracked)"; EVENT_LAS_COIN
 -4  hist2 LRESU2B; "LAS Resolution U2(larger)"; (abs(LAS_TDL_U2[1])-LAS_SDL_U2[1])*LAS_PL_U2[5]; -10.0; 10.0; 100; "Zansa"; (LAS_TDL_U2[1])*LAS_PL_U2[5]; -10; 10; 100; "Displacement from a wire (Tracked)"; EVENT_LAS_COIN
 -4  hist1 LGRADX1; "LAS Grad X1"; atan(LAS_GRAD_X1[0])*r2d; 0; 90; 180; "LAS VDC Grad X1"; "Counts"; 
 -4  hist1 LGRADU1; "LAS Grad U1"; atan(LAS_GRAD_U1[0])*r2d; 0; 90; 180; "LAS VDC Grad U1"; "Counts"; 
 -4  hist1 LGRADV1; "LAS Grad V1"; atan(LAS_GRAD_V1[0])*r2d; 0; 90; 180; "LAS VDC Grad V1"; "Counts"; 
 -4  hist1 LGRADX2; "LAS Grad X2"; atan(LAS_GRAD_X2[0])*r2d; 0; 90; 180; "LAS VDC Grad X2"; "Counts"; 
 -4  hist1 LGRADU2; "LAS Grad U2"; atan(LAS_GRAD_U2[0])*r2d; 0; 90; 180; "LAS VDC Grad U2"; "Counts"; 
 -4  hist1 LGRADV2; "LAS Grad V2"; atan(LAS_GRAD_V2[0])*r2d; 0; 90; 180; "LAS VDC Grad V2"; "Counts"; 
 -4. com   Plane Angular Resolution
  5  hist2 LARESX1; "LAS Grad X vs Grad X1 - X"; (atan(LAS_GRAD_X1[0])-atan(LAS_GRAD_X[0]))*r2d; -7; 7; 70; "Angular Resolution X1[deg]"; atan(LAS_GRAD_X[0])*r2d; 40; 70; 60; "LAS Grad X [deg]"; 
  5  hist2 LARESX2; "LAS Grad X vs Grad X2 - X"; (atan(LAS_GRAD_X2[0])-atan(LAS_GRAD_X[0]))*r2d; -7; 7; 70; "Angular Resolution X1[deg]"; atan(LAS_GRAD_X[0])*r2d; 40; 70; 60; "LAS Grad X [deg]"; 
  5  hist2 LARESU1; "LAS Grad U vs Grad U1 - U"; (atan(LAS_GRAD_U1[0])-atan(LAS_GRAD_X[0]*cos(31.0*d2r)+LAS_GRAD_Y[0]*sin(31.0*d2r)))*r2d; -7; 7; 70; "Angular Resolution X1[deg]"; atan(LAS_GRAD_X[0]*cos(31.0*d2r)+LAS_GRAD_Y[0]*sin(31.0*d2r))*r2d; 30; 70; 80; "LAS Grad U [deg]"; 
  5  hist2 LARESU2; "LAS Grad U vs Grad U2 - U"; (atan(LAS_GRAD_U2[0])-atan(LAS_GRAD_X[0]*cos(31.0*d2r)+LAS_GRAD_Y[0]*sin(31.0*d2r)))*r2d; -7; 7; 70; "Angular Resolution X1[deg]"; atan(LAS_GRAD_X[0]*cos(31.0*d2r)+LAS_GRAD_Y[0]*sin(31.0*d2r))*r2d; 30; 70; 80; "LAS Grad U [deg]"; 
 -3  com   LAS Ray
 -4  hist1 LRAYID; "LAS RAYID"; LAS_RAYID; -20; 40; 60; "LAS Ray ID"; "Counts"; EVENT_LAS_COIN && LAS_RF_G
 -4  hist1 LRAYIDG; "LAS RAYID (LAS PI)"; LAS_RAYID; -20; 40; 60; "LAS Ray ID"; "Counts"; EVENT_LAS_COIN && LAS_PI
 -4  hist1 LCHI2; "LAS Chi Square"; LAS_CHI2[0]; -3; 50; 530; "LAS Chi Square"; "Counts/0.01"; EVENT_LAS_COIN
 -4  hist1 LX; "LAS X"; LAS_X[0]; -600; 600; 300; "LAS X [mm]"; "Counts/mm"; EVENT_LAS_COIN
 -4  hist1 LXPI; "LAS X (PI-Gated)"; LAS_X[0]; -600; 600; 300; "LAS X [mm]"; "Counts/mm"; EVENT_LAS_COIN && LAS_PI
 -4  hist1 LXPIRF; "LAS X (PI-Gated, RF-Gated)"; LAS_X[0]; -600; 600; 300; "LAS X [mm]"; "Counts/mm"; EVENT_LAS_COIN && LAS_PI && LAS_RF_G
  4  hist1 LY; "LAS Y"; LAS_Y[0]; -200; 200; 200; "LAS Y [mm]"; "Counts/2mm"; EVENT_LAS_COIN
 -4  hist1 LTH; "LAS TH"; LAS_TH[0]*r2d; -30; 30; 600; "LAS Theta [deg]"; "Counts/0.1deg"; EVENT_LAS_COIN
 -4  hist1 LPH; "LAS PH"; LAS_PH[0]*r2d; -20; 20; 400; "LAS Phi"; "Counts/0.1deg"; EVENT_LAS_COIN
 -4  hist2 LXTH; "LAS TH vs X"; LAS_X[0]; -1000; 1000; 100; "LAS X [mm]"; LAS_TH[0]*r2d; -20; 20; 100; "LAS Theta [deg]"; EVENT_LAS_COIN
  4  hist2 LXY; "LAS Y vs X"; LAS_X[0]; -1000; 1000; 100; "LAS X [mm]"; LAS_Y[0]; -100; 100; 100; "LAS Y [mm]"; EVENT_LAS_COIN
 -4  hist2 LXYPI; "LAS Y vs X (PI-Gated)"; LAS_X[0]; -1000; 1000; 100; "LAS X [mm]"; LAS_Y[0]; -100; 100; 100; "LAS Y [mm]"; EVENT_LAS_COIN &&LAS_PI
 -4  hist2 LYPH; "LAS Phi vs Y"; LAS_Y[0]; -200; 200; 100; "LAS Y [mm]"; LAS_PH[0]*r2d; -20; 20; 100; "LAS Phi [deg]"; EVENT_LAS_COIN
 -4  hist2 LTHPH; "LAS Phi vs Theta"; LAS_TH[0]*r2d; -20; 20; 100; "LAS Theta [deg]"; LAS_PH[0]*r2d; -20; 20; 100; "LAS Phi [deg]"; EVENT_LAS_COIN
 -4  hist2 LXRF1; "LAS LAS RF1 X"; LAS_X[0]; -600; 600; 60; "LAS X [mm]"; LAS_RF[1]; 0; 2048; 128; "LAS RF1 [ch]"; EVENT_LAS_COIN
 -4  hist2 LXRF3; "LAS LAS RF1 X"; LAS_X[0]; -600; 600; 60; "LAS X [mm]"; LAS_RF[3]; 0; 2048; 128; "LAS RF3 [ch]"; EVENT_LAS_COIN
 -4  hist2 LRF1X; "LAS X vs LAS RF1"; LAS_RF[1]; 0; 1024; 128; "LAS RF1 [ch]"; LAS_X[0]; -1000; 1000; 50; "LAS X [mm]"; EVENT_LAS_COIN
 -4  hist2 LRFCX; "LAS X vs LAS RFC"; LAS_RFC[0]; -50; 50; 100; "LAS RFC [nsec]"; LAS_X[0]; -1000; 1000; 100; "LAS X [mm]"; EVENT_LAS_COIN
 -4  hist2 LRFCY; "LAS Y vs LAS RFC"; LAS_RFC[0]; -50; 50; 100; "LAS RFC [nsec]"; LAS_Y[0]; -200; 200; 100; "LAS Y [mm]"; EVENT_LAS_COIN
 -3. com   LAS Optics
  4  hist1 LDP; "LAS dp/p"; LAS_DP[0]; -0.2; 0.2; 1000; "LAS dp/p"; "Counts/4x10^-4"; EVENT_LAS_COIN
  4  hist1 LAI; "LAS AI"; LAS_AI[0]*r2d; -3; 3; 600; "LAS AI [deg]"; "Counts/0.01deg"; EVENT_LAS_COIN
  4  hist2 LDPAI; "LAS AI vs dp/p"; LAS_DP[0]; -0.25; 0.25; 100; "LAS dp/p"; LAS_AI[0]*r2d; -5; 5; 100; "LAS AI [deg]"; EVENT_LAS_COIN
  4  hist1 LP; "LAS p"; LAS_P[0]; 0.3*LAS_B*LAS_Rho*LAS_q*0.80; 0.3*LAS_B*LAS_Rho*LAS_q*1.20; 1200; "LAS Momentum [MeV/c]"; "Counts/ch"; EVENT_LAS_COIN
  4  hist1 LTH3; "LAS TH3"; LAS_TH3[0]*r2d; LAS_TH3_MIN; LAS_TH3_MAX; 200; "LAS Scattering Angle [deg]"; "Counts/0.01deg"; EVENT_LAS_COIN
  4  hist2 LPTH3; "LAS Theta vs Momentum"; LAS_P[0]; 0.3*LAS_B*LAS_Rho*LAS_q*0.80; 0.3*LAS_B*LAS_Rho*LAS_q*1.20; 100; "LAS Momentum [MeV/c]"; LAS_TH3[0]*r2d; LAS_TH3_MIN; LAS_TH3_MAX; 80; "LAS Scattering Angle [deg]"; EVENT_LAS_COIN
  4  hist1 LEX; "LAS Excitation Energy"; LAS_EX[0]; -10; 60; 350; "LAS Ex [MeV]"; "Counts/MeV"; EVENT_LAS_COIN
  4  hist2 LEXTH3; "LAS Theta 3 vs Ex"; LAS_EX[0]; -10; 60; 70; "LAS Ex [MeV]"; LAS_TH3[0]*r2d; LAS_TH3_MIN; LAS_TH3_MAX; 80; "LAS Scattering Angle [deg]"; EVENT_LAS_COIN
  4  hist1 LEXC; "LAS Excitation Energy"; LAS_EXC[0]; -10; 60; 700; "LAS Ex [MeV]"; "Counts/0.1MeV"; EVENT_LAS_COIN
 -3. com   For LAS-Y
  4  hist2 LXY; "LAS Y vs X"; LAS_X[0]; -1000; 1000; 100; "LAS X [mm]"; LAS_Y[0]; -100; 100; 100; "LAS Y [mm]"; EVENT_LAS_COIN
  4  hist1 LYG; "LAS Y (Gated by X)"; LAS_Y[0]; -100; 100; 500; "LAS Y [mm]"; "Counts/ch"; EVENT_LAS_COIN && gate(LAS_X[0], -200, 200)
 -2. com   FPP Polarization Analysis Selected Histograms
  3  hist1 GYC; "GR YC"; GR_YC[0]; -100; 100; 200; "GR YC [mm]"; "Counts/ch"; EVENT_GR_COIN
  3  hist1 GYCG; "GR YC (AI,BI-Gated)"; GR_YC[0]; -100; 100; 400; "GR YC [mm]"; "Counts/ch"; EVENT_GR_COIN && GR_PHC_G && GR_AI_G && GR_BI_G
  3  hist1 GYCGT; "GR YC (AI,BI-Gated)"; GR_YC[0]; -100; 100; 400; "GR YC [mm]"; "Counts/ch"; EVENT_GR_COIN && GR_YC_G && GR_PHC_G && GR_AI_G && GR_BI_G
  3  hist2 GYCPHCG; "GR Phi-c vs Y-c (AI-Gated)"; GR_YC[0]; -50; 50; 50; "GR YC [mm]"; GR_PHC[0]*r2d; -2; 2; 50; "GR PHC [deg]"; EVENT_GR_COIN && gate(GR_AI[0]*r2d, -1, 1)
  3  hist1 GEXCG; "GR excitation energy-C (YC,PHC-Gated)"; GR_EX_C[0]; 0; 25; 5000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_YC_G && GR_PHC_G
  3  hist1 GEXCG2; "GR excitation energy-C (YC,PHC Gated, AI-Gated)"; GR_EX_C[0]; 0; 25; 5000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_YC_G && GR_PHC_G && GR_AI_G
  3  hist1 GEXCG3; "GR excitation energy-C (YC,PHC Gated, AI,BI-Gated)"; GR_EX_C[0]; 0; 25; 5000; "GR excitation energy [MeV]"; "Counts/ch"; EVENT_GR_COIN && GR_YC_G && GR_PHC_G && GR_AI_G && GR_BI_G
  3  hist2 GEXCAI; "GR AI vs excitation energy-c"; GR_EX_C[0]; 5; 25; 100; "GR excitation energy [MeV]"; GR_AI[0]*r2d; -1.5; 1.5; 100; "GR AI [deg]"; EVENT_GR_COIN && GF_ANA_G && GR_BI_G
  3  hist2 GEXCBI; "GR BI vs excitation energy-c"; GR_EX_C[0]; 5; 25; 100; "GR excitation energy [MeV]"; GR_BI[0]*r2d; -4; 4; 100; "GR BI [deg]"; EVENT_GR_COIN && GF_ANA_G && GR_AI_G
  3  hist1 GFRAYID; "GR-FPP RAYID"; GF_RAYID; -20; 40; 60; ""; ""; 
  3  hist1 GFCHI2; "GR-FPP Chi Square"; GF_CHI2; -10; 50; 300; ""; ""; 
  3  hist1 GFTHDIFF; "GR-FPP TH - GR TH"; (GF_OUT_TH[0]-GR_TH[0])*r2d; -20; 20; 2000; "GR-FPP Theta - GR Theta [deg]"; "Counts/0.02deg"; 
  3  hist1 GFPHDIFF; "GR-FPP PH - GR PH"; (GF_OUT_PH[0]-GR_PH[0])*r2d; -10; 10; 2000; "GR-FPP Phi - GR Phi [deg]"; "Counts/0.01deg"; 
  3  hist1 GFAPH; "GR-FPP Scattering Angle Phi (Azimuthal)"; GF_SCAT_PH[0]*r2d; -200; 200; 400; "Azimuthal Scattering Angle [deg]"; "Count/deg"; EVENT_GR_COIN && GF_ANA_G
  3  hist1 GFAPHG; "GR-FPP Scattering Angle Phi (Azimuthal)"; GF_SCAT_PH[0]*r2d; -200; 200; 100; "Azimuthal Scattering Angle [deg]"; "Count/4deg"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G
  3  hist1 GFAPHGU; "GR-FPP Scattering Angle Phi (Azimuthal) Spin Up"; GF_SCAT_PH[0]*r2d; -200; 200; 100; "Azimuthal Scattering Angle [deg]"; "Count/4deg"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G && SPIN_UP
  3  hist1 GFAPHGD; "GR-FPP Scattering Angle Phi (Azimuthal) Spin Down"; GF_SCAT_PH[0]*r2d; -200; 200; 100; "Azimuthal Scattering Angle [deg]"; "Count/4deg"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G && SPIN_DN
 -3  hist1 GFAPHGUPAT1; "GR-FPP Scattering Angle Phi (Azimuthal) Spin Up (GF_ANA_PAT==0)"; GF_SCAT_PH[0]*r2d; -200; 200; 100; "Azimuthal Scattering Angle [deg]"; "Count/4deg"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G && SPIN_UP && GF_ANA_PAT==0
 -3  hist1 GFAPHGDPAT1; "GR-FPP Scattering Angle Phi (Azimuthal) Spin Down (GF_ANA_PAT==0)"; GF_SCAT_PH[0]*r2d; -200; 200; 100; "Azimuthal Scattering Angle [deg]"; "Count/4deg"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G && SPIN_DN && GF_ANA_PAT==0
 -3  hist1 GFAPHGUPAT2; "GR-FPP Scattering Angle Phi (Azimuthal) Spin Up (GF_ANA_PAT!=0)"; GF_SCAT_PH[0]*r2d; -200; 200; 100; "Azimuthal Scattering Angle [deg]"; "Count/4deg"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G && SPIN_UP && GF_ANA_PAT!=0
 -3  hist1 GFAPHGDPAT2; "GR-FPP Scattering Angle Phi (Azimuthal) Spin Down (GF_ANA_PAT!=0)"; GF_SCAT_PH[0]*r2d; -200; 200; 100; "Azimuthal Scattering Angle [deg]"; "Count/4deg"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G && SPIN_DN && GF_ANA_PAT!=0
 -3  hist2 GFAPHGUPAT3; "GR-FPP Scattering Angle Phi (Azimuthal) Spin Up vs GF Analysis Pattern"; GF_ANA_PAT; -5; 40; 45; "GF Analysis Pattern"; GF_SCAT_PH[0]*r2d; -200; 200; 40; "Azimuthal Scattering Angle [deg]"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G && SPIN_UP
 -3  hist2 GFAPHGDPAT3; "GR-FPP Scattering Angle Phi (Azimuthal) Spin Down vs GF Analysis Pattern"; GF_ANA_PAT; -5; 40; 45; "GF Analysis Pattern"; GF_SCAT_PH[0]*r2d; -200; 200; 40; "Azimuthal Scattering Angle [deg]"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G && SPIN_DN
  3  hist2 GFEXPHU; "GR-FPP Phi vs Ex Spin-Up"; GR_EX_C[0]; 3; 23; 4000; "GR X"; GF_SCAT_PH[0]*r2d; -200; 200; 100; "Azimuthal Scattering Angle [deg]"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G && SPIN_UP
  3  hist2 GFEXPHD; "GR-FPP Phi vs Ex Spin-Down"; GR_EX_C[0]; 3; 23; 4000; "GR X"; GF_SCAT_PH[0]*r2d; -200; 200; 100; "Azimuthal Scattering Angle [deg]"; EVENT_GR_COIN && GF_ANA_G && GF_SCAT_TH_G && SPIN_DN