Configs.toml

# Config File formatted as follows:

# Each parameter is formatted like: [XXX.YYY] where XXX refers to the group of the parameter and YYY refers to the name of the parameter
# Each parameter has exactly two key:value pairs.
#   The first is the actual value of the parameter (a path, a number, a string etc.)
#   The second is the sanity check/constraint on the parameter. See TomlSanityCheck.py for a current list of supported constraints

### Parameters Used across all calculations

[General.Geometry]
  # Geometry of detector. Options are {"flat","cube"}  
  value= "cube"
  constraint ="DetectorGeometry"
[General.RABinnings]
#binnings on skymap fro source and background in Right Ascension
  value = 500.0
  constraint = "SPosFloat"
[General.ALTBinnings]
#binnings on skymap from source and background in Declination
  value = 500.0
  constraint = "SPosFloat"
[General.output_directory]
  value = "/nevis/milne/files/ms6556/BleekerData/test"
  constraint = "ValidFolder"
[General.MC_truth]
# flag to denote if using MC_truth/Reconstruct executable
  value = true
  constraint = "Boolean"
[General.scale]
# What scale the binnings should be. Options are {"linear","log"}
  value = "linear"
  constraint  = "ScaleCheck"
[General.local_run]
# Run code locally instead of on condor
  value = false
  constraint  = "Boolean"

### Effective Area: Read in by Effective Area condor job and CalcEffArea

## GramsSky portion. Some fixed parameters of the simulation
# -o gramssky.hepmc3
# PositionGeneration Iso
# --PhiMinMax \"(-3.14159,3.14159)\" --ThetaMinMax \"(-1.57079,1.57079)\"
# --OriginSphere depends on Geometry. Cube is \"(0,0,-40.0 )\". Flat is  --OriginSphere \"(0,0,-10.0 )\"


[EffectiveArea.gramssky.RadiusSphere]
# Generating sphere where photons start at
  value = 300.0
  constraint = "SPosFloat"

[EffectiveArea.gramssky.RadiusDisc]
# Disk along which photons get translated
  value = 200.0
  constraint = "SPosFloat"

[EffectiveArea.gramssky.minE]
# Minimum energy to test
  value = 0.1
  constraint = "SPosFloat"

[EffectiveArea.gramssky.maxE]
# Maximum energy to test
  value = 10.0
  constraint = "SPosFloat"

[EffectiveArea.gramssky.energy_bins]
# Number of energy bins
  value = 100
  constraint = "SPosInt"

[EffectiveArea.gramssky.nparticles]
# Number of particles to generate at each energy
  value = 20000 
  constraint = "SPosInt"

## Gramsg4 section of effective area
# Defaults.  These shouldn't be changed by user.
# -i gramssky.hepmc3
# -o gramsg4.root
# -g {GDML} where GDML is dependent on Geometry. ThinGrams.gdml for 'cube', ThinFlatGrams.gdml for 'flat'
# -m {MAC} where {MAC} is ./mac/EffAreaHepmc3.mac, which is a file created by GenCondorJobs

[EffectiveArea.gramsg4]
# No user defined parameters here... yet


## GramsDetSim section
# Defaults.  These shouldn't be changed by user.
# -i gramssky.root
# -o gramsdetsim.root

[EffectiveArea.gramsdetsim]
# No user defined parameters here... yet

## Extract section
# Defaults
# --GramsG4Name gramsg4.root
# --GramsDetSimName gramsdetsim.root

[EffectiveArea.Extract.ExtractOutput]
    value = "EffectiveAreaExtract"
    constraint = "NonEmptyString"

## EffectiveArea
# Defaults
# -i ExtractOutput key in Extract
[EffectiveArea.Reconstruct.ReconstructOutput]
    value = "EffectiveAreaReconstruction" # _${process}.root gets appended to this string
    constraint = "NonEmptyString"

### Point Source Generation Section

## Input parameters
[Source.Input.SourceEnergy]
  value = 1.0  # Energy of Source (MeV)
  constraint = "SPosFloat"
[Source.Input.SourceEventsPerJob]
  value = 10000  # Number of Source events per job
  constraint = "SPosInt"
[Source.Input.SourceBatches]
  value = 10  # Number of jobs to generate with source
  constraint = "SPosInt"
[Source.Input.RASourceLoc]
  value = 0.0  # Location of source in Right Ascension in degrees (in xy plane)
  constraint = "Floating"
[Source.Input.ALTSourceLoc]
  value = 0.0  # Loocation of source in Altitude in degrees (moving up from xy plane)
  constraint = "Floating"

## GramsSky section of Point Source
# Defaults
# --PositionGeneration Point
# --PointSource calculated from RA and ALT locations
# -o uses Events.hepmc3
# --RadiusSphere 300
# --RadiusDisc 200
# OriginSphere from Geometry
# --EnergyGeneration Fixed

[Source.gramssky]
# Nothing user define... for now

## GramsG4 section of Source
# Defaults
# -o is default
# -g dependent on geometry
# -i is gramssky.hepmc3
# -m dependent on number of particle generated. Generated by GenCondorJobs.py

[Source.gramsg4]
# Nothing user define... for now

## GramsDetSim section of Source
# -i is default gramsg4
# -o is default gramsdetsim
[Source.gramsdetsim]
# Nothing user define... for now

## Extract section of Source
# GramsG4Name is default
# GramsDetSimName is default
[Source.Extract.ExtractOutput]
  value = "SourceExtract"
  constraint = "NonEmptyString"

## Reconstruct section of Source
# Defaults
#input is output of Extract
# SourceType is Point
# SourceLoc is from RA and ALT
[Source.Reconstruct]
  value = "SourceReconstruct" # _${process}.root gets appended to this string
  constraint = "NonEmptyString"

## Skymap section of source
#  Input is output of Reconstruct
# EffAreaFile from CalcEffArea.py
# Mask from mask
[Source.SkyMap]
# _${process}.root gets appended to this string
  value = "SourceSkyMap"
  constraint = "NonEmptyString" 

### Background Section

## General user input section

[Background.Input.BackgroundEventsPerJob]
# Number of Background events per job
  value= 10000
  constraint = "SPosInt"

[Background.Input.BackgroundBatches]
# Number of jobs to generate
  value= 10
  constraint = "SPosInt"

## GramsSky section of background

# Defaults
# default output GramsG4Name
# RadiusSphere 300
# PositionGeneration Iso
#--PhiMinMax "(-3.14159,3.14159)" --ThetaMinMax "(0,3.14159265)"
# OriginSphere from Geometry
[Background.gramssky.Spectrum]
# Energy generation type. {"PowerLaw","Uniform"}
  value = "PowerLaw"
  constraint = "EnergyDist"

[Background.gramssky.minE]
# Energy in MeV
  value = 0.1
  constraint=  "SPosFloat"

[Background.gramssky.maxE]
  value = 10.0
  constraint=  "SPosFloat"

## GramsG4 section of background

# output is default
# input is gramssky.hepmc3
# m is hepmc3 macro generated by GenCondorJobs

[Background.gramsg4]
# No user-defined parameters... for now

## GramsDetSim section of background

# output default
# input default gramsg4

[Background.gramsdetsim]
# No user-defined parameters... for now

## Extract section of background
# GramsG4Name is default
# GramsDetSimName is default

[Background.Extract.ExtractOutput]
  value = "BackgroundExtract"
  constraint = "NonEmptyString"

## Reconstruct section of background
# Defaults
#input is output of Extract
# SourceType is Iso

[Background.Reconstruct.ReconstructOutput]
# _${process}.root gets appended to this string
  value = "BackgroundReconstruction"
  constraint = "NonEmptyString"

## SkyMap section of background
# EffAreaFile from CalcEffArea.py
# Flux files created with GenEnergySpectrum

[Background.SkyMap.SkyMapOutput]
# _${process}.root gets appended to this string
    value = "BackgroundSkyMap"
    constraint = "NonEmptyString"

[Background.SkyMap.ExposureTime]
    value = 86400.0 # In seconds
    constraint = "SPosFloat"

### Binary Mask generation,to limit skymaps to certain portions of the sky

# Inputs

# Defaults
# RA and ALT locations from Source
# Same binnings as in General
# Calcuates BinaryMask which can be applied to a skymap 

[Mask.Input.nevents]
# Number of Source events per job
  value = 10000
  constraint = "SPosInt"
[Mask.Input.nbins]
# Number of binnings in ARM distribution
  value = 1000
  constraint = "SPosInt"
[Mask.Input.MaskOutput]
# Output File name
  value = "BinaryMask.root"
  constraint = "NonEmptyString"
[Mask.Input.draw]
# Write out png of what mask looks like
  value = true
  constraint = "Boolean"

### Effective Area

[CalcEffArea.Input.OutputFileName]
  value = "EffectiveArea.root"
  constraint = "NonEmptyString"

### Sensitivity Calc

[Sensitivity.Input.TimeScaling]
# How much to scale up/down the exposure time
  value = 1.0
  constraint = "SPosFloat"