settings.dat

###########################################################
## This file contains all the settings for the DAQ        #
## including the geometry mapping for each detector       #
## Parameters that are commented are the defaults values  #
## If you want to change them, uncomment or make a copy   #
##                                                        #
## You pass this file to iss_sort with the -s if needed   #
###########################################################

##--------------#
## Array things #
##--------------#
#NumberOfArrayModules: 3
#NumberOfArrayASICs: 6
#NumberOfArrayChannels: 128
#NumberOfArrayRows: 4
#NumberOfArrayPstrips: 128
#NumberOfArrayNstrips: 11


##------------------------#
## CAEN things: Crate = 0 #
##------------------------#
#NumberOfCAENModules: 2 		# maximum 16
#NumberOfCAENChannels: 16
#CAEN_0.Model: 1725	# can be 1725 or 1730, maybe even 1720?
#CAEN_1.Model: 1725	# I suppose we can also support others in future


##---------------------------#
## Mesytec things: Crate = 1 #
##---------------------------#
#NumberOfMesytecModules: 0 		# maximum 16
#NumberOfMesytecChannels: 32
#NumberOfMesytecLogicInputs: 2


##------------------------#
## Triggers, pulsers, etc #
##------------------------#
#ExternalTriggerCode: 14
#SyncCode: 4
#TimestampCode: 5
#PulserAsicArray_0: 1
#PulserChannelArray_0: 63
#PulserCodeArray_0: 18
#PulserAsicArray_1: 4
#PulserChannelArray_1: 63
#PulserCodeArray_1: 19
#PulserThresholdArray: 1000
#PulserModuleCAEN: 1
#PulserChannelCAEN: 13
#PulserCodeCAEN: 20			# cannot be changed, info only
#PulserChannelMesytec: 33	# channel 33 is the second logic input
#PulserCodeMesytec: 25		# cannot be changed, info only
#EBIS.Crate: 0				# 0 = CAEN VME crate, 1 = Mesytec VME crate
#EBIS.Module: 1
#EBIS.Channel: 14
#EBIS.Code: 21 				# 21 from CAEN/Mesytec, 15 from array FPGA
#T1.Crate: 0				# 0 = CAEN VME crate, 1 = Mesytec VME crate
#T1.Module: 1
#T1.Channel: 15
#T1.Code: 22				# cannot be changed, info only
#SC.Crate: 0				# 0 = CAEN VME crate, 1 = Mesytec VME crate
#SC.Module: 1
#SC.Channel: 12
#SC.Code: 23				# cannot be changed, info only
#Laser.Crate: 0				# 0 = CAEN VME crate, 1 = Mesytec VME crate
#Laser.Module: 1
#Laser.Channel: 11
#Laser.Code: 24				# cannot be changed, info only


##-------------#
## Data things #
##-------------#
#DataBlockSize: 65536		# 64 kB for ISS/CAEN data or 128 kB (0x20000) for CAEN only data
#ASICDataOnly: false		# normally we have a mix of data in the file, but if you
#CAENDataOnly: false		# only want to sort data from one of the DAQs, for example
#MesytecDataOnly: false		# if they are not properly synchronised, set the flags


##---------------#
## Event builder #
##---------------#
#BuildByTimeStamp: true		# true: use timestamp only for event building (default)
							# false: use time-walk corrected times for event building
#EventWindow: 3e3 			# in ns. Default is 3 µs
#RecoilHitWindow: 500		# in ns. Default is 500 ns
#ArrayHitWindow.PN: 500		# in ns. Default is 500 ns
#ArrayHitWindow.PP: 500		# in ns. Default is 500 ns
#ArrayHitWindow.NN: 500		# in ns. Default is 500 ns
#ZeroDegreeHitWindow: 500	# in ns. Default is 500 ns
#GammaRayHitWindow: 500		# in ns. Default is 500 ns
#LumeHitWindow: 500 # in ns. Default is 500 ns
#CDHitWindow.RS: 500 # in ns. Default is 500 ns (ring-strip combinations)
#CDHitWindow.DD: 500 # in ns. Default is 500 ns (detector-detector combinations)


#-----------------#
# Event rejection #
#-----------------#
#ClippedRejection: true		# reject if a signal is marked as clipped by the firmware
#OverflowRejection: true	# reject if the energy is in the overflow


##-----------------#
## Recoil Detector #
##-----------------#
#NumberOfRecoilSectors: 4 # 4 quadrants for Si dE-E, or just 1 for the ionisation chamber
#NumberOfRecoilLayers: 2 # 2 layers of Si in the dE-E, or 13 anodes for the ionisation chamber
#RecoilEnergyLossStart: 0	# Start layer for integrating energy loss
#RecoilEnergyLossStop: 0	# Stop layer for integrating energy loss
#RecoilEnergyRestStart: 1	# Start layer for integrating energy rest
#RecoilEnergyRestStop: 1	# Stop layer for integrating energy rest
#RecoilEnergyTotalStart: 0	# Start layer for integrating energy total
#RecoilEnergyTotalStop: 1	# Stop layer for integrating energy total
#Recoil_0_0.Crate: 0	# R0-dE, sector 0, layer 0
#Recoil_0_0.Module: 0	# R0-dE, sector 0, layer 0
#Recoil_0_0.Channel: 0	# R0-dE, sector 0, layer 0
#Recoil_0_1.Crate: 0	# R0-E, sector 0, layer 1
#Recoil_0_1.Module: 0	# R0-E, sector 0, layer 1
#Recoil_0_1.Channel: 1	# R0-E, sector 0, layer 1
#Recoil_1_0.Crate: 0	# R1-dE, sector 1, layer 0
#Recoil_1_0.Module: 0	# R1-dE, sector 1, layer 0
#Recoil_1_0.Channel: 2	# R1-dE, sector 1, layer 0
#Recoil_1_1.Crate: 0	# R1-E, sector 1, layer 1
#Recoil_1_1.Module: 0	# R1-E, sector 1, layer 1
#Recoil_1_1.Channel: 3	# R1-E, sector 1, layer 1
#Recoil_2_0.Crate: 0	# R2-dE, sector 2, layer 0
#Recoil_2_0.Module: 0	# R2-dE, sector 2, layer 0
#Recoil_2_0.Channel: 4	# R2-dE, sector 2, layer 0
#Recoil_2_1.Crate: 0	# R2-E, sector 2, layer 1
#Recoil_2_1.Module: 0	# R2-E, sector 2, layer 1
#Recoil_2_1.Channel: 5	# R2-E, sector 2, layer 1
#Recoil_3_0.Crate: 0	# R3-dE, sector 3, layer 0
#Recoil_3_0.Module: 0	# R3-dE, sector 3, layer 0
#Recoil_3_0.Channel: 6	# R3-dE, sector 3, layer 0
#Recoil_3_1.Crate: 0	# R3-E, sector 3, layer 1
#Recoil_3_1.Module: 0	# R3-E, sector 3, layer 1
#Recoil_3_1.Channel: 7	# R3-E, sector 3, layer 1


##---------------#
## MWPC Detector #
##---------------#
#NumberOfMWPCAxes: 2	# x = 0 and y = 1
#MWPC_0_0.Crate: 0
#MWPC_0_0.Module: 1		# MWPC axis 0 TAC 0
#MWPC_0_0.Channel: 8	#
#MWPC_0_1.Crate: 0
#MWPC_0_1.Module: 1		# MWPC axis 0 TAC 1
#MWPC_0_1.Channel: 9	#
#MWPC_1_0.Crate: 0
#MWPC_1_0.Module: 1		# MWPC axis 1 TAC 0
#MWPC_1_0.Channel: 10	#
#MWPC_1_1.Crate: 0
#MWPC_1_1.Module: 1		# MWPC axis 1 TAC 1
#MWPC_1_1.Channel: 11	#


##---------------#
## ELUM Detector #
##---------------#
#NumberOfELUMSectors: 4	# 4 quadrants for S1 ELUM with Jim's FlexPCB (might be 6 in the future)
#ELUM_0.Crate: 0	# ELUM0, sector/quadrant 0 of the S1
#ELUM_0.Module: 1	# ELUM0, sector/quadrant 0 of the S1
#ELUM_0.Channel: 0	# ELUM0, sector/quadrant 0 of the S1
#ELUM_1.Crate: 0	# ELUM1, sector/quadrant 1 of the S1
#ELUM_1.Module: 1	# ELUM1, sector/quadrant 1 of the S1
#ELUM_1.Channel: 1	# ELUM1, sector/quadrant 1 of the S1
#ELUM_2.Crate: 0	# ELUM2, sector/quadrant 2 of the S1
#ELUM_2.Module: 1	# ELUM2, sector/quadrant 2 of the S1
#ELUM_2.Channel: 2	# ELUM2, sector/quadrant 2 of the S1
#ELUM_3.Crate: 0	# ELUM3, sector/quadrant 3 of the S1
#ELUM_3.Module: 1	# ELUM3, sector/quadrant 3 of the S1
#ELUM_3.Channel: 3	# ELUM3, sector/quadrant 3 of the S1


##---------------------#
## ZeroDegree Detector #
##---------------------#
#NumberOfZDLayers: 2	# This should always be 2, because it's a silicon dE-E
#ZD_0.Crate: 0			# ZeroDegree dE
#ZD_0.Module: 1			# ZeroDegree dE
#ZD_0.Channel: 6		# ZeroDegree dE
#ZD_1.Crate: 0			# ZeroDegree E
#ZD_1.Module: 1			# ZeroDegree E
#ZD_1.Channel: 7		# ZeroDegree E


##----------------------#
## ScintArray Detectors #
##----------------------#
#NumberOfScintArrayDetectors: 0	# This is default 0, but can be 33 or more!
#ScintArray_0.Crate: 0		# List of detectors
#ScintArray_0.Module: 2		# and their mapping
#ScintArray_0.Channel: 0	#


##----------------#
## LUME Detectors #
##----------------#
#NumberOfLUMEDetectors: 0	# This is default 0, but can be a few
#LUME_0_be.Crate: 1			# List of detectors
#LUME_0_be.Module: 2		# and their mapping
#LUME_0_be.Channel: 0		# for each signal type
#LUME_0_ne.Crate: 1			# 3 signals: be, ne, fe
#LUME_0_ne.Module: 2		#
#LUME_0_ne.Channel: 1		#
#LUME_0_fe.Crate: 1			#
#LUME_0_fe.Module: 2		#
#LUME_0_fe.Channel: 2		#


##------------------------------#
## CD Fission Fragment Detector #
##------------------------------#
#NumberOfCDLayers: 0 		# 0 is default to turn off the CD, but usually 2 layers of Si in the dE-E configuration
#NumberOfCDRings: 16 		# number of rings (p-side) in the S1 detector, usually 16
#NumberOfCDSectors: 8 		# number of sectors (n-side) in the S1 detector, usually 8 (maximum 255)
#CDEnergyLossStart: 0		# Start layer for integrating energy loss
#CDEnergyLossStop: 0		# Stop layer for integrating energy loss
#CDEnergyRestStart: 1		# Start layer for integrating energy rest
#CDEnergyRestStop: 1		# Stop layer for integrating energy rest
#CDEnergyTotalStart: 0		# Start layer for integrating energy total
#CDEnergyTotalStop: 1		# Stop layer for integrating energy total
#CD_0_0.R.Crate: 1			# should be in the Mesytec system
#CD_0_0.R.Module: 0			# mapped by <layer>_<ring>.<R> for rings
#CD_0_0.R.Channel: 0		#
#CD_0_0.S.Crate: 1			# mapped by <layer>_<sector>.<S> for sectors
#CD_0_0.S.Module: 1			#
#CD_0_0.S.Channel: 0		#