BP_analysis_M431 modified
BP_analysis_M431.cpp modified
BP_scan.sh must declare module number as argument and readout speed (full_speed or half_speed) Modified the communication interface and commands to the pulser
BP_scan_both_speeds.sh Added Vb_comp 1220 at the end of the script and Modified the communication interface and commands to the pulser
CS_analysis.cpp add list of new modules for analysis
CS_analysis_JF11 modified
CS_analysis_M431.cpp modified
CS_fit.cpp add new modules in the list
CS_scan.sh must declare module number as argument and readout speed (full_speed or half_speed)
CS_scan_both_speeds.sh Added Vb_comp 1220 at the end of the script
CuFluo_exposure.sh Change HV to 60V and I to 40mA instead of 40V and 60mV+ must declare module number as argument and readout speed (full_speed or half_speed)
CuFluo_exposure_JF11.s Change HV to 60V and I to 40mA instead of 40V and 60mV
CuFluo_exposure_both_speeds.sh Change HV to 60V and I to 40mA instead of 40V and 60m
CuFluo_exposure_sc.sh Change HV to 60V and I to 40mA instead of 40V and 60m. Adjust the period to avoid losing packets
CuFluo_fit_sc.cpp Create a new file to fit Cu and noise peak fit for the storage cells data
Default_pixels_arrays.cpp Creates a default pixels system map given the module numbers of the system
Fluo_analysis_Ti_In.cpp Analysis the data for Fluorecensce target: Ti, Fe, Cu, Se, Mo, or In. The target needs to be passed as an argument.
Fluo_exposure_Ti_In.sh Fluorescence exposure with targets: Ti, Fe, Cu, Se, Mo, or In.
Fluo_fit.cpp Function to fit the fluorescence peaks for the different targets: Ti, Fe, Cu, Se, Mo, or In. The target needs to be passed as an argument.
JFMC_CalibWriter_wBP_sc.cpp change the range of the g0cutmap
Multi_filename_creator.sh Bash file to create 6 different receivers, one for each JFcalib readout board
filename_creator.sh add comments
makefile Add new objects:Fluo_analysis_Ti_In, Fluo_fit, CuFluo_fit_sc, CS_fit, BP_fit, etc...
Due to the amplifier plateau at the end of its range. According to the
datasheet of the amplifier (Analog devices model ADA4870) the output
voltage swing is 37 V with a 40 V supply. This is the cause of the
non-linearity at the end of the scans. The fit should only extend to
7 V - (3 V / gain factor of 5) = 6.4 V. All modules have been rerun.
For very unruly datasets, all points can have negative error (average of the same value has no well defined error).
Can't work out how to preserve gain switching checks and remove these points at the same time. So check.
With the new range finding, this is now taken into account.
Points with negative error will not be fit, since there will be an entry in the second array.
Not having these points in the first array would change the range for the second array.
