-
Notifications
You must be signed in to change notification settings - Fork 0
Expand file tree
/
Copy pathinit_simulation.cfg
More file actions
67 lines (51 loc) · 4.37 KB
/
Copy pathinit_simulation.cfg
File metadata and controls
67 lines (51 loc) · 4.37 KB
1
2
3
4
5
6
7
8
9
10
11
12
13
14
15
16
17
18
19
20
21
22
23
24
25
26
27
28
29
30
31
32
33
34
35
36
37
38
39
40
41
42
43
44
45
46
47
48
49
50
51
52
53
54
55
56
57
58
59
60
61
62
63
64
# GEMINI configuration file
# before using, read LIFEsim's official documentation @ https://lifesim.readthedocs.io/en/latest/index.html
#Instrument parameters
[instrument]
instrument_scenario = baseline # options: pessimistic, baseline or optimistic architecture scenarios
#the scenario determines the collectors' aperture diameter and the instrument's wavelength range, if you wish to change these set the following to True
instrument_scenario-override = False
#default values listed here correspond to baseline settings (if override is 'False', these are ignored) [default]
instrument_diameter = 2 # aperture diameter of the collector spacecrafts [2 meters]
instrument_wl-min = 4 # minimum wavelength accessible by interferometer [4 micron]
instrument_wl-max = 18.5 # maximum wavelength accessible by interferometer [18.5 micron]
#other parameters can be altered manually without overriding the architecture
instrument_photon-throughput = 0.05 # photon throughput of optical path [0.05]
instrument_quantum-efficiency = 0.70 # quantum efficiency of the detector [0.70]
instrument_spectral-resolution = 20 # spectral resolution of spectrometer [20 bins]
instrument_minimum-baseline = 10 # minimum possible baseline length [10 meters]
instrument_maximum-baseline = 100. # maximum possible baseline length [100 meters]
instrument_ratio-baseline = 6. # ratio of imaging/nulling baseline [6]
instrument_slewing-time = 36000 # time to slew the array to different target [36000 seconds]
instrument_t-efficiency = 0.80 # fraction of on-target time for science output [0.80]
instrument_image-size = 256. # square root of number of pixels used in transmission maps [256 pixels]
instrument_optimal-wl = 15. # wavelength optimized by baseline [15 micron]
#Simulation parameters
[simulation]
simulation_integration-time = 36000 # observation time in seconds [s]
simulation_baseline-optimization = True # optimizes baseline for target planet
simulation_distance-to-planet = 7 # distance to planet in parsecs [pc]
simulation_distance-to-star = 7 # distance to star in parsecs [pc]
simulation_zodi = 1 # level of exozodiacal dust in zodis [z]
#Star parameters
[star]
star_temperature = 5780 # Kelvin [K]
star_radius = 1 # Solar radii
star_ecliptic-latitude = 1.3 # ecliptic latitude in radians, 45deg = 0.78; 90deg = 1.57
[plotting]
plotting_snr = True #condition to plot observation's signal to noise ratio per bin alongside planet's spectrum in LIFEsim
#plotting_
# Planet parameters
# manual set-up for blackbody
[planet]
planet_temperature = 300 # Kelvin [K]
planet_radius = 1 # Earth radii
planet_orbit = 1 # AU
#or input spectrum values
planet_insert-spectrum = True # set to True to perform simulation on an input spectrum instead
# of blackbody, file format must be a plain text file with wavelength
# in 1st column and spectral irradiance in 2nd
planet_pathtospectrum = /Users/lorenzo/LIFE_Projects/MarijnFlux/emis_NO_L_4.txt #insert path to data file here
planet_unit-emission = Jy # accepted units are: Jansky [Jy];
# photons m-2 s-1 [ph/m2/s]
planet_unit-wavelength = micron # accepted units are: microns [micron]; meters [m]