# Global configuration
[Allpix]
# simulate a total of 1000  events
number_of_events = 10000

log_level = "STATUS" 
# "STATUS" "ERROR" "Warning" "Info" "DEBUG" "TRACE" "PRNG" "STATUS"
# use the short logging format

log_format = "SHORT" 
# "DEFAULT" "LONG"

# write the root output data of all modules 
root_file = modules.root

# location of the detector configuration
detectors_file = "diamondGeo.conf"

# Read and instantiate the detectors and construct the Geant4 geometry
[GeometryBuilderGeant4]
world_material = "air"
world_margin_percentage = 0.0
world_minimum_margin = 0mm 0mm 0mm


# Initialize physics list and particle source
[DepositionGeant4]
# Use a Genat4 physics lists  with EMPhysicsStandard_option3 enabaled
physics_list = FTFP_BERT_LIV
# Use a charged pion as particle
particle_type = "proton"
# Set the energy of the particle
source_energy = 120GeV
# Origin of the beam 
source_position = 0 0 -12mm
# The direction of the beam
beam_direction = 0 0 1
# Use a single particle in a single event
number_of_particles = 1
beam_size = 1mm
beam_divergence = 0.5mrad 0.5mrad

# add an electric field
[ElectricFieldReader]
# Set the field type to linear
model = "linear"
# Applied bias voltage to calculate the electric field form
bias_voltage = 500
# Depletion voltage at which the given sensor is fully depleted
#depletion_voltage = -10V

#add a magnetic field 
#[MagneticFieldReader]
# Constat magnetic field (Currently this is the default value)
#model = "constant"
# Magnetic field vector
#magnetic_field = 0mT 3.8T 0T


# Propagate the charge carriers through the sensor
[GenericPropagation]
# Set the temprature of the sensor
temperature = 293K
# Propagate multiple charges at once
charge_per_step = 300
max_charge_groups = 1000
#timestep_min = 1ps
#timestep_max = 5ps
#timestep_start = 1ps
#spatial_precision = 0.1nm

#output_linegraphs = true
#output_plots_step = 100ps
#output_plots_align_pixels = true
#output_plots_use_pixel_units = true

# Optional to only draw charge carrier groups which reached the implant side:
# output_plpts_lines_at_implants = true


# Transfer the propagated charges to the pixels
[SimpleTransfer]
#max_depth_distance = 5um

# Digitize the propagated charges
[DefaultDigitizer]
# Noise added by the readout electronics
electronics_noise =  120e
# Threshold for a hit to be detected
threshold = 600e
# Threshold dispersion
threshold_smearing = 30e
# Noise added by digitization
qdc_smearing = 300e

# Save histograms to the ROOT output file
[DetectorHistogrammer]
# Save histograms for the "dut" detector only
name = "dut0" 

# Store all simulated objects to a ROOT file with TTrees
[ROOTObjectWriter]
# File name of the output file
file_name = "allpix-squared-output"
# ignor initially deposited charges and propagated carriers:
exclude = DepositedCharge, PropagatedCharge

#[VisualizationGeant4]
# Use the QT gui
#mode = "gui"
# Qt is not isntalled, we will use the alternative way with mode none
# mode = "none"
# Use the VRML driver
# driver = "VRML2FILE"
#driver = "OGL"

# Set transparency of the detector models (in percent)
#transparency = 0.4
#view_style = "surface"
#display_trajectories = 1

#Color trajectories by charge of the particle
#trajectories_color_mode = "charge"
#trajectories_color_positive = "blue"
#trajectories_color_neutral = "green"
#trajectories_color_negative = "red"
#display_limit = 1000000

#[CorryvreckanWriter]
#file_name = corryoutput.root
#output_mctruth = true
#reference = telescope1
#dut = dut0