Output format¶

PROTEUS writes simulation output to a directory inside output/. This page documents the structure of that directory and the contents of the main output files.

Directory structure¶

A completed PROTEUS run produces:

output/<run_name>/
    runtime_helpfile.csv    # Main time-series output (tab-separated)
    init_coupler.toml       # Copy of the configuration used
    status                  # Exit status code and description
    proteus_00.log          # Log file (subsequent resumes: proteus_01.log, ...)
    plots/                  # Generated diagnostic plots
        plot_global.png
        plot_escape.png
        plot_interior.png
        ...
    data/                   # Module-specific output files
        <iter>_atm.nc       # Atmosphere profiles (NetCDF, per snapshot)
        <iter>_int.nc       # Interior profiles (NetCDF, per snapshot)
        zalmoxis_output.dat # Zalmoxis structure profile (latest)
        spider_eos/         # Cached EOS lookup tables (if Aragog/SPIDER)
        ...
    observe/                # Synthetic observations (if enabled)
        transit_<source>_synthesis.csv   # Transit depth spectra
        eclipse_<source>_synthesis.csv   # Eclipse depth spectra

<source> is outgas, profile, or offchem, depending on observe.source. With observe.source = "all" (default), PROTEUS writes one pair of files per available source.

Status codes¶

The status file contains a single integer followed by a human-readable description. The codes are:

Code	Meaning
0	Started
1	Running
10	Completed: mantle solidified
11	Completed: maximum clock runtime
12	Completed: maximum iterations reached
13	Completed: target time reached
14	Completed: net flux is small (radiative equilibrium)
15	Completed: atmosphere escaped
16	Completed: planet disintegrated
20	Error: configuration
21	Error: interior module
22	Error: atmosphere module
23	Error: stellar module
24	Error: chemistry module
25	Error: killed or crashed
26	Error: tidal module
27	Error: outgassing module
28	Error: escape module

Helpfile columns¶

The runtime_helpfile.csv is a tab-separated file with one row per coupling iteration. All quantities use SI units unless noted otherwise. The columns are grouped by category below.

Each iteration carries the previous row forward and overwrites only the columns the active modules produce, so a column whose producer is not part of the current configuration keeps its previous value (initially zero) for the whole run. The "written when" column names the configuration that actually writes each column.

Model tracking¶

Column	Unit	Description	Producer	Written when	Read by
`Time`	`yr`		`proteus.py`	always	atmos_chem, atmos_clim, interior_energetics, main loop, observe, orbit, outgas, plot, star, utils

Orbital and spin parameters of planet¶

Column	Unit	Description	Producer	Written when	Read by
`semimajorax`	`m`	semi-major axis	`orbit/orbit.py` `orbit/wrapper.py`	always; orbit.evolve = true	escape, orbit, plot
`separation`	`m`	time-averaged separation	`orbit/wrapper.py`	always	atmos_chem, atmos_clim, main loop, observe, orbit, plot, star, utils
`perihelion`	`m`	lowest point in orbit	`orbit/wrapper.py`	always	orbit
`orbital_period`	`s`	orbital duration	`orbit/wrapper.py`	always	orbit
`eccentricity`	`1`	orbital eccentricity	`orbit/orbit.py` `orbit/wrapper.py`	always; orbit.evolve = true	escape, orbit, plot
`Imk2`	`1`	Imaginary part of k2 Love Number	`orbit/wrapper.py`	always	orbit
`axial_period`	`s`	day length of planet around its axis	`orbit/satellite.py` `orbit/wrapper.py`	always; orbit.satellite = true	atmos_clim, orbit, plot, utils
`longitude`	`deg`	column longitude relative to substellar point	`atmos_clim/agni.py` `orbit/wrapper.py`	always; atmos_clim.module = "agni"	atmos_clim
`latitude`	`deg`	column latitude relative to substellar point	`atmos_clim/agni.py` `orbit/wrapper.py`	always; atmos_clim.module = "agni"	atmos_clim

Satellite system¶

Column	Unit	Description	Producer	Written when	Read by
`perigee`	`m`	lowest point in orbit	`orbit/wrapper.py`	always
`semimajorax_sat`	`m`	semi-major axis	`orbit/satellite.py` `orbit/wrapper.py`	always; orbit.satellite = true	orbit, plot
`M_sat`	`kg`	mass of satellite	`orbit/satellite.py`	orbit.satellite = true	orbit
`plan_sat_am`	`kg m2 s-1`	angular momentum of sat+pla	`orbit/satellite.py`	orbit.satellite = true	orbit

Planet structure¶

Column	Unit	Description	Producer	Written when	Read by
`R_int`	`m`	interior radius	`interior_energetics/wrapper.py` `interior_struct/dummy.py` `interior_struct/zalmoxis.py` `proteus.py`	always; interior_struct.module = "dummy"; interior_struct.module = "zalmoxis"	atmos_chem, atmos_clim, escape, interior_energetics, interior_struct, main loop, observe, orbit, outgas, plot
`M_int`	`kg`	interior mass	`interior_energetics/wrapper.py` `interior_struct/dummy.py` `interior_struct/zalmoxis.py`	always; interior_struct.module = "dummy"; interior_struct.module = "zalmoxis"	atmos_clim, interior_energetics, interior_struct, orbit, outgas
`M_planet`	`kg`	total planet wet+dry mass	`interior_energetics/wrapper.py`	always	atmos_clim, escape, interior_energetics, orbit, outgas, plot, utils
`M_vaps`	`kg`	vapourised rock mass, including the vapourised oxygen	`outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, utils
`R_core`	`m`	core radius	`interior_energetics/wrapper.py` `interior_struct/dummy.py` `interior_struct/zalmoxis.py`	always; interior_struct.module = "dummy"; interior_struct.module = "zalmoxis"	interior_energetics
`R_solvus`	`m`	solvus radius for global_miscibility mode	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"	interior_energetics, interior_struct, main loop
`P_solvus`	`Pa`	solvus pressure for global_miscibility mode	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"	interior_struct, main loop
`T_solvus`	`K`	solvus temperature for global_miscibility mode	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"	interior_struct, main loop
`P_center`	`Pa`	central pressure from Zalmoxis structure ; 0 for SPIDER, which models the mantle only	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"	interior_struct
`P_cmb`	`Pa`	core-mantle boundary pressure, from Zalmoxis structure or SPIDER's basic-node pressure profile	`interior_energetics/spider.py` `interior_struct/zalmoxis.py`	interior_energetics.module = "spider"; interior_struct.module = "zalmoxis"	interior_energetics, interior_struct
`core_density`	`kg m-3`	core density from structure solver	`interior_energetics/aragog.py` `interior_energetics/wrapper.py` `interior_struct/dummy.py` `interior_struct/zalmoxis.py`	always; interior_energetics.module = "aragog"; interior_struct.module = "dummy"; interior_struct.module = "zalmoxis"	interior_energetics
`core_heatcap`	`J kg-1 K-1`	core heat capacity	`interior_energetics/wrapper.py` `interior_struct/dummy.py` `interior_struct/zalmoxis.py`	always; interior_struct.module = "dummy"; interior_struct.module = "zalmoxis"	interior_energetics
`X_H2_int`	`1`	H2 mass fraction in interior (sub-Neptune mode)	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"	interior_struct
`struct_mass_desync_frac`	`1`	\|trapezoid - ODE accumulator\| / accumulator structure mass self-consistency	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"	interior_struct

Temperatures¶

Column	Unit	Description	Producer	Written when	Read by
`T_surf`	`K`	global surface temperature	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py` `atmos_clim/wrapper.py` `interior_energetics/boundary.py` `interior_energetics/wrapper.py` `interior_struct/zalmoxis.py` `proteus.py`	always; atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"; interior_energetics.module = "boundary"; interior_struct.module = "zalmoxis"	atmos_chem, atmos_clim, interior_energetics, main loop, plot, utils
`T_magma`	`K`	global outgassing temperature	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py` `interior_energetics/wrapper.py` `interior_struct/zalmoxis.py` `proteus.py`	always; interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"; interior_struct.module = "zalmoxis"	atmos_clim, interior_energetics, main loop, outgas, plot, utils
`T_cmb`	`K`	core temperature	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/spider.py`	interior_energetics.module = "aragog"; interior_energetics.module = "spider"	interior_energetics
`T_eqm`	`K`	grey radiative equilibrium temperature	`proteus.py` `star/wrapper.py`	always	interior_energetics, interior_struct, star
`T_skin`	`K`	grey radiative skin temperature	`star/wrapper.py`	always	atmos_clim
`T_surface_initial`	`K`	self-consistent T_surf from accretion mode	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"	interior_energetics
`T_surf_accr`	`K`	surface temperature from accretion energy balance	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"
`DeltaT_accretion`	`K`	accretion-energy DeltaT contribution	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"
`DeltaT_adiabat`	`K`	adiabatic DeltaT contribution	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"
`DeltaT_differentiation`	`K`	core-mantle differentiation DeltaT contribution	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"
`U_grav_diff`	`J`	gravitational binding energy (differentiated)	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"
`U_grav_undiff`	`J`	gravitational binding energy (undifferentiated)	`interior_struct/zalmoxis.py`	interior_struct.module = "zalmoxis"

Planet energy fluxes¶

Column	Unit	Description	Producer	Written when	Read by
`F_int`	`W m-2`	flux from top of interior	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py` `interior_energetics/wrapper.py` `proteus.py`	always; interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"	atmos_clim, interior_energetics, plot, utils
`F_atm`	`W m-2`	flux from top of atmosphere	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py` `proteus.py`	always; atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"	atmos_clim, interior_energetics, main loop, plot, utils
`F_net`	`W m-2`	flux difference F_int-F_atm	`atmos_clim/wrapper.py`	always
`F_olr`	`W m-2`	outgoing longwave radiation	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"	atmos_clim, plot
`F_sct`	`W m-2`	outgoing shortwave radiation	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"	atmos_clim, plot
`F_ins`	`W m-2`	incoming instellation flux	`star/wrapper.py`	always	atmos_clim, plot, star
`F_xuv`	`W m-2`	incoming XUV radiation flux	`star/wrapper.py`	always	escape, star
`bol_scale`	`1`	bolometric scaling factor	`star/wrapper.py`	always	star
`tau_atm_TOA`	`1`	optical depth at TOA, at ref wavelength	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`tau_atm_surface`	`1`	optical depth at surface, at ref wavelength	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`atm_Ra_max`	`1`	maximum Rayleigh number across levels	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`atm_t_conv_over_t_rad`	`1`	convective vs radiative timescale ratio	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`atm_converged`	`1`	atmosphere solve outcome: +1 converged, -1 rejected, 0 no solve	`atmos_clim/wrapper.py`	always
`atm_levels_stale`	`1`	consecutive iterations without a converged solve of this run	`atmos_clim/wrapper.py`	always	main loop
`F_tidal`	`W m-2`	tidal heat flux arising at surface	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py`	interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"	interior_energetics, orbit, plot, utils
`F_radio`	`W m-2`	radiogenic heat flux arising at surface	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py`	interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"	interior_energetics, plot, utils
`F_cmb`	`W m-2`	heat flux at the CMB (signed, +out-of-core)	`interior_energetics/aragog.py` `interior_energetics/spider.py`	interior_energetics.module = "aragog"; interior_energetics.module = "spider"

Planet interior properties¶

Column	Unit	Description	Producer	Written when	Read by
`gravity`	`m s-2`	surface gravity	`interior_energetics/wrapper.py` `interior_struct/dummy.py` `interior_struct/zalmoxis.py`	always; interior_struct.module = "dummy"; interior_struct.module = "zalmoxis"	atmos_chem, atmos_clim, interior_energetics, interior_struct, outgas
`Phi_global`	`1`	mantle melt mass-fraction	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py` `interior_energetics/wrapper.py`	always; interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"	interior_energetics, interior_struct, main loop, outgas, plot, utils
`Phi_global_vol`	`1`	mantle melt volume-fraction	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py`	interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"
`RF_depth`	`1`	depth of rheological front	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py`	interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"	interior_energetics, plot
`M_core`	`kg`	dry mass of core	`interior_energetics/aragog.py` `interior_energetics/spider.py` `interior_energetics/wrapper.py` `interior_struct/dummy.py` `interior_struct/zalmoxis.py`	always; interior_energetics.module = "aragog"; interior_energetics.module = "spider"; interior_struct.module = "dummy"; interior_struct.module = "zalmoxis"	interior_energetics, interior_struct
`M_mantle`	`kg`	dry mass of mantle	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py` `interior_energetics/wrapper.py`	always; interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"	interior_energetics, interior_struct, outgas
`M_mantle_solid`	`kg`	dry mass of solid-phase mantle	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py` `interior_energetics/wrapper.py`	always; interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"	interior_energetics, interior_struct
`M_mantle_liquid`	`kg`	dry mass of liquid-phase mantle	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py` `interior_energetics/wrapper.py`	always; interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"	interior_energetics, interior_struct
`T_pot`	`K`	characteristic mantle potential temperature	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py`	interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"
`boundary_layer_thickness`	`m`	thermal boundary layer thickness	`interior_energetics/aragog.py` `interior_energetics/boundary.py` `interior_energetics/dummy.py` `interior_energetics/spider.py`	interior_energetics.module = "aragog"; interior_energetics.module = "boundary"; interior_energetics.module = "dummy"; interior_energetics.module = "spider"

Energy-conservation columns¶

Column	Unit	Description	Producer	Written when	Read by
`E_th_mantle`	`J`	thermal-energy proxy (do not use for conservation)	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/spider.py`	interior_energetics.module = "aragog"; interior_energetics.module = "spider"
`E_state_J`	`J`	state-mass integrated mantle enthalpy (diagnostic only)	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"
`E_state_cons_J`	`J`	frozen-mass integrated mantle enthalpy (diagnostic only)	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"	utils
`Q_radio_W`	`W`	instantaneous mantle-integrated radiogenic power	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"
`Q_tidal_W`	`W`	instantaneous mantle-integrated tidal power	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"
`step_dE_F_int_J`	`J`	per-call ∫ -F_int*A_int dt	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"	utils
`step_dE_F_cmb_J`	`J`	per-call ∫ +F_cmb*A_cmb dt	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"	utils
`step_dE_Q_radio_J`	`J`	per-call ∫ +Q_radio dt (live-density, predicted side)	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"	utils
`step_dE_Q_tidal_J`	`J`	per-call ∫ +Q_tidal dt (live-density, predicted side)	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"	utils
`step_dE_Q_radio_cons_J`	`J`	per-call ∫ +Q_radio dt (frozen-mass, diagnostic)	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"
`step_dE_Q_tidal_cons_J`	`J`	per-call ∫ +Q_tidal dt (frozen-mass, diagnostic)	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"
`step_solver_residual_J`	`J`	per-call entropy-ODE LHS-RHS	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"	utils
`step_dE_compression_J`	`J`	per-call structure-re-solve compression work (diagnostic)	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"
`step_dE_state_heat_J`	`J`	per-call entropy-transported heat content change	`interior_energetics/aragog.py`	interior_energetics.module = "aragog"	utils
`E_state_heat_cons_J`	`J`	cumulative sum of step_dE_state_heat_J across rows	`utils/coupler.py`	always
`dE_predicted_cons_J`	`J`	cumulative sum of boundary fluxes + live-density step_dE_Q_*_J	`utils/coupler.py`	always
`E_residual_cons_J`	`J`	E_state_heat_cons_J - dE_predicted_cons_J	`utils/coupler.py`	always
`E_residual_cons_frac`	`1`	E_residual_cons_J / max(\|E_state_heat_cons_J\|, 1 J)	`utils/coupler.py`	always
`solver_residual_J`	`J`	cumulative entropy-ODE LHS-RHS residual	`utils/coupler.py`	always
`Cp_eff`	`J kg-1 K-1`	effective mantle heat capacity	`interior_energetics/aragog.py` `interior_energetics/aragog_jax.py` `interior_energetics/spider.py`	interior_energetics.module = "aragog"; interior_energetics.module = "spider"

Host star properties¶

Column	Unit	Description	Producer	Written when	Read by
`M_star`	`kg`	mass of star	`star/wrapper.py`	always	orbit
`R_star`	`m`	photospheric radius	`star/wrapper.py`	always	atmos_chem, atmos_clim, observe, plot, star
`age_star`	`yr`	age relative to deuterium fusion 'stellar birthline'	`proteus.py`	always	main loop, star
`T_star`	`K`	photospheric temperature	`star/wrapper.py`	always	observe, star

Planet observational properties¶

Column	Unit	Description	Producer	Written when	Read by
`p_obs`	`bar`	transit pressure level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`R_obs`	`m`	transit radius	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"	atmos_clim, escape, orbit, plot
`T_obs`	`K`	transit temperature	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"	escape
`g_obs`	`m s-2`	transit gravity	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`rho_obs`	`kg m-3`	transit bulk density	`atmos_clim/wrapper.py`	always
`transit_depth`	`1`	primary transit light curve depth	`atmos_clim/wrapper.py`	always	plot
`eclipse_depth`	`1`	secondary eclipse light curve depth	`atmos_clim/wrapper.py`	always	plot
`albedo_pl`	`1`	INPUT bond albedo from config: constant value (0 to 1)	`atmos_clim/wrapper.py`	always	atmos_clim, plot, star
`bond_albedo`	`1`	OUTPUT calculated bond albedo from radtrans: SW_UP/SW_DN, zero if no scattering	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py` `atmos_clim/wrapper.py`	always; atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"	plot

Atmospheric composition from outgassing¶

Column	Unit	Description	Producer	Written when	Read by
`M_ele`	`kg`	total mass of volatile and noble elements; rock vapour excluded	`interior_energetics/wrapper.py` `outgas/wrapper.py`	always	interior_energetics
`M_atm`	`kg`	total mass of atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	interior_energetics, outgas, plot, utils
`P_surf`	`bar`	total surface pressure	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, escape, interior_energetics, interior_struct, main loop, outgas, plot, utils
`P_vap`	`bar`	rock vapour surface pressure	`outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, utils
`P_vol`	`bar`	volatiles surface pressure	`outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, utils
`atm_kg_per_mol`	`kg mol-1`	outgassed atmosphere MMW	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`M_vol_atm`	`kg`	atmospheric mass of volatiles and noble gases; rock vapour excluded	`outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	utils
`fO2_shift_IW_derived`	`log10 bar`	equilibrated IW-buffer offset	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`fO2_vapourise_derived`	`log10 bar`	rock-vapour fO2	`outgas/lavatmos.py`	outgas.vapourise = true	outgas
`fO2_vapourise_shift_IW_derived`	`log10 bar`	rock-vapour IW offset	`outgas/lavatmos.py`	outgas.vapourise = true	outgas
`O_res`	`kg`	O mass-balance residual	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"
`O_vapourised_kg`	`kg`	oxygen released by rock vapourisation (LavAtmos)	`outgas/lavatmos.py`	outgas.vapourise = true

Desiccation escape balance¶

Column	Unit	Description	Producer	Written when	Read by
`M_vol_initial`	`kg`	bulk volatile inventory baseline	`escape/wrapper.py`	always	escape, outgas
`esc_kg_cumulative`	`kg`	cumulative escaped mass	`escape/wrapper.py`	always	escape, outgas
`esc_clamp_frac`	`1`	requested per-step loss / escapable reservoir	`escape/wrapper.py` `proteus.py`	always	escape
`esc_step_kg`	`kg`	loss applied on this step, after the cap	`escape/wrapper.py` `proteus.py`	always	outgas

Gases from outgassing¶

Column	Unit	Description	Producer	Written when	Read by
`H2O_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`H2O_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H2O_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H2O_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`H2O_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`H2O_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H2O_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	interior_struct, outgas
`H2O_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`H2O_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`H2O_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`H2O_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`CO2_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`CO2_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CO2_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CO2_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`CO2_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`CO2_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CO2_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CO2_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`CO2_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`CO2_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`CO2_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`O2_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`O2_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`O2_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`O2_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`O2_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`O2_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`O2_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`O2_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`O2_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`O2_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`O2_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`H2_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`H2_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H2_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H2_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`H2_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	interior_struct, outgas
`H2_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H2_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"	interior_struct, outgas
`H2_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	interior_struct, outgas
`H2_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`H2_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`H2_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`CH4_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`CH4_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CH4_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CH4_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`CH4_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`CH4_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CH4_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CH4_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`CH4_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`CH4_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`CH4_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`CO_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`CO_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CO_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CO_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`CO_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`CO_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CO_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CO_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`CO_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`CO_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`CO_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`N2_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`N2_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`N2_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`N2_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`N2_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`N2_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`N2_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`N2_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`N2_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`N2_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`N2_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`NH3_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`NH3_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`NH3_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`NH3_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`NH3_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`NH3_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`NH3_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`NH3_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`NH3_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`NH3_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`NH3_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`S2_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`S2_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`S2_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`S2_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`S2_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`S2_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`S2_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`S2_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`S2_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`S2_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`S2_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`SO2_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`SO2_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SO2_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SO2_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`SO2_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`SO2_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SO2_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SO2_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`SO2_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`SO2_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`SO2_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`H2S_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`H2S_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H2S_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H2S_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`H2S_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`H2S_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H2S_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H2S_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`H2S_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, atmos_clim, outgas
`H2S_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`H2S_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`He_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`He_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`He_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`He_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`He_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`He_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`He_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`He_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`He_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`He_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`He_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Ne_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Ne_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ne_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ne_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Ne_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Ne_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ne_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ne_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Ne_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Ne_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Ne_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Ar_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Ar_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ar_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ar_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Ar_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Ar_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ar_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ar_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Ar_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Ar_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Ar_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Kr_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Kr_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Kr_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Kr_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Kr_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Kr_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Kr_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Kr_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Kr_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Kr_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Kr_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Xe_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Xe_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Xe_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Xe_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Xe_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Xe_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Xe_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Xe_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Xe_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Xe_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Xe_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`SiO_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`SiO_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiO_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiO_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`SiO_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`SiO_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiO_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiO_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`SiO_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`SiO_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`SiO_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`SiO2_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`SiO2_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiO2_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiO2_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`SiO2_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`SiO2_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiO2_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiO2_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`SiO2_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`SiO2_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`SiO2_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Si_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Si_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Si_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Si_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Si_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Si_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Si_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Si_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Si_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Si_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Si_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Na_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Na_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Na_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Na_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Na_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Na_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Na_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Na_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Na_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Na_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Na_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`K_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`K_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`K_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`K_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`K_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`K_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`K_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`K_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`K_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`K_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`K_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Ti_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Ti_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ti_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ti_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Ti_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Ti_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ti_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ti_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Ti_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Ti_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Ti_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`TiO_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`TiO_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`TiO_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`TiO_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`TiO_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`TiO_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`TiO_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`TiO_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`TiO_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`TiO_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`TiO_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`TiO2_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`TiO2_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`TiO2_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`TiO2_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`TiO2_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`TiO2_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`TiO2_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`TiO2_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`TiO2_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`TiO2_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`TiO2_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Mg_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Mg_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Mg_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Mg_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Mg_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Mg_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Mg_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Mg_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Mg_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Mg_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Mg_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`MgO_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`MgO_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`MgO_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`MgO_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`MgO_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`MgO_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`MgO_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`MgO_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`MgO_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`MgO_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`MgO_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Al_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Al_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Al_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Al_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Al_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Al_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Al_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Al_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Al_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Al_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Al_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`HAlO2_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`HAlO2_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`HAlO2_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`HAlO2_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`HAlO2_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`HAlO2_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`HAlO2_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`HAlO2_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`HAlO2_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`HAlO2_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`HAlO2_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`SiH_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`SiH_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiH_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiH_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`SiH_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`SiH_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiH_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiH_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`SiH_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`SiH_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`SiH_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`SiH4_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`SiH4_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiH4_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiH4_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`SiH4_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`SiH4_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiH4_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`SiH4_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`SiH4_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`SiH4_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`SiH4_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Fe_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Fe_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Fe_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Fe_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Fe_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Fe_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Fe_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Fe_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Fe_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Fe_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Fe_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`FeO_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`FeO_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`FeO_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`FeO_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`FeO_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`FeO_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`FeO_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`FeO_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`FeO_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`FeO_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`FeO_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`FeO2H2_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`FeO2H2_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`FeO2H2_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`FeO2H2_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`FeO2H2_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`FeO2H2_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`FeO2H2_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`FeO2H2_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`FeO2H2_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`FeO2H2_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`FeO2H2_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`CaO_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`CaO_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CaO_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CaO_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`CaO_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`CaO_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CaO_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`CaO_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`CaO_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`CaO_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`CaO_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`NaOH_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`NaOH_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`NaOH_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`NaOH_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`NaOH_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`NaOH_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`NaOH_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`NaOH_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`NaOH_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`NaOH_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`NaOH_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`Ca_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Ca_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ca_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ca_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`Ca_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`Ca_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ca_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`Ca_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	escape, interior_struct, outgas, plot
`Ca_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`Ca_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`Ca_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`KOH_mol_atm`	`mol`	number outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`KOH_mol_solid`	`mol`	number in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`KOH_mol_liquid`	`mol`	number in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`KOH_mol_total`	`mol`	number in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	plot
`KOH_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`KOH_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`KOH_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`KOH_kg_total`	`kg`	mass in whole planet	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas
`KOH_vmr`	`1`	outgassed volume mixing ratio	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_clim, outgas
`KOH_bar`	`bar`	partial surface pressure	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py` `proteus.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	outgas, plot
`KOH_vmr_xuv`	`1`	volume mixing ratio at XUV level	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"

Quantities for each element¶

Column	Unit	Description	Producer	Written when	Read by
`H_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`H_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/binodal.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; h2 binodal enabled; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`H_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	escape, interior_struct, outgas, plot
`O_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`O_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`O_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`O_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	escape, interior_struct, outgas, plot
`C_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`C_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`C_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`C_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	escape, interior_struct, outgas, plot
`N_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`N_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`N_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`N_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	escape, interior_struct, outgas, plot
`S_kg_atm`	`kg`	mass outgassed to atmosphere	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/lavatmos.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"; outgas.vapourise = true	atmos_chem, interior_struct, outgas, plot
`S_kg_solid`	`kg`	mass in solid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`S_kg_liquid`	`kg`	mass in liquid mantle	`outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	outgas
`S_kg_total`	`kg`	mass in whole planet	`escape/wrapper.py` `outgas/atmodeller.py` `outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "atmodeller"; outgas.module = "calliope"; outgas.module = "dummy"	escape, interior_struct, outgas, plot

Element mass ratios in atmosphere¶

Column	Unit	Description	Producer	Written when
`O/H_atm`	`1`	mass ratio of O to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`C/H_atm`	`1`	mass ratio of C to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`N/H_atm`	`1`	mass ratio of N to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`S/H_atm`	`1`	mass ratio of S to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Si/H_atm`	`1`	mass ratio of Si to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Mg/H_atm`	`1`	mass ratio of Mg to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Fe/H_atm`	`1`	mass ratio of Fe to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Na/H_atm`	`1`	mass ratio of Na to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Al/H_atm`	`1`	mass ratio of Al to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ti/H_atm`	`1`	mass ratio of Ti to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/H_atm`	`1`	mass ratio of Ca to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/H_atm`	`1`	mass ratio of K to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/H_atm`	`1`	mass ratio of He to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/H_atm`	`1`	mass ratio of Ne to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/H_atm`	`1`	mass ratio of Ar to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/H_atm`	`1`	mass ratio of Kr to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/H_atm`	`1`	mass ratio of Xe to H in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`C/O_atm`	`1`	mass ratio of C to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`N/O_atm`	`1`	mass ratio of N to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`S/O_atm`	`1`	mass ratio of S to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Si/O_atm`	`1`	mass ratio of Si to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Mg/O_atm`	`1`	mass ratio of Mg to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Fe/O_atm`	`1`	mass ratio of Fe to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Na/O_atm`	`1`	mass ratio of Na to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Al/O_atm`	`1`	mass ratio of Al to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ti/O_atm`	`1`	mass ratio of Ti to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/O_atm`	`1`	mass ratio of Ca to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/O_atm`	`1`	mass ratio of K to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/O_atm`	`1`	mass ratio of He to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/O_atm`	`1`	mass ratio of Ne to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/O_atm`	`1`	mass ratio of Ar to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/O_atm`	`1`	mass ratio of Kr to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/O_atm`	`1`	mass ratio of Xe to O in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`N/C_atm`	`1`	mass ratio of N to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`S/C_atm`	`1`	mass ratio of S to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Si/C_atm`	`1`	mass ratio of Si to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Mg/C_atm`	`1`	mass ratio of Mg to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Fe/C_atm`	`1`	mass ratio of Fe to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Na/C_atm`	`1`	mass ratio of Na to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Al/C_atm`	`1`	mass ratio of Al to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ti/C_atm`	`1`	mass ratio of Ti to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/C_atm`	`1`	mass ratio of Ca to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/C_atm`	`1`	mass ratio of K to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/C_atm`	`1`	mass ratio of He to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/C_atm`	`1`	mass ratio of Ne to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/C_atm`	`1`	mass ratio of Ar to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/C_atm`	`1`	mass ratio of Kr to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/C_atm`	`1`	mass ratio of Xe to C in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`S/N_atm`	`1`	mass ratio of S to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Si/N_atm`	`1`	mass ratio of Si to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Mg/N_atm`	`1`	mass ratio of Mg to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Fe/N_atm`	`1`	mass ratio of Fe to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Na/N_atm`	`1`	mass ratio of Na to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Al/N_atm`	`1`	mass ratio of Al to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ti/N_atm`	`1`	mass ratio of Ti to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/N_atm`	`1`	mass ratio of Ca to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/N_atm`	`1`	mass ratio of K to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/N_atm`	`1`	mass ratio of He to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/N_atm`	`1`	mass ratio of Ne to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/N_atm`	`1`	mass ratio of Ar to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/N_atm`	`1`	mass ratio of Kr to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/N_atm`	`1`	mass ratio of Xe to N in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Si/S_atm`	`1`	mass ratio of Si to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Mg/S_atm`	`1`	mass ratio of Mg to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Fe/S_atm`	`1`	mass ratio of Fe to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Na/S_atm`	`1`	mass ratio of Na to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Al/S_atm`	`1`	mass ratio of Al to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ti/S_atm`	`1`	mass ratio of Ti to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/S_atm`	`1`	mass ratio of Ca to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/S_atm`	`1`	mass ratio of K to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/S_atm`	`1`	mass ratio of He to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/S_atm`	`1`	mass ratio of Ne to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/S_atm`	`1`	mass ratio of Ar to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/S_atm`	`1`	mass ratio of Kr to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/S_atm`	`1`	mass ratio of Xe to S in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Mg/Si_atm`	`1`	mass ratio of Mg to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Fe/Si_atm`	`1`	mass ratio of Fe to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Na/Si_atm`	`1`	mass ratio of Na to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Al/Si_atm`	`1`	mass ratio of Al to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ti/Si_atm`	`1`	mass ratio of Ti to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/Si_atm`	`1`	mass ratio of Ca to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/Si_atm`	`1`	mass ratio of K to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/Si_atm`	`1`	mass ratio of He to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/Si_atm`	`1`	mass ratio of Ne to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/Si_atm`	`1`	mass ratio of Ar to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/Si_atm`	`1`	mass ratio of Kr to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/Si_atm`	`1`	mass ratio of Xe to Si in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Fe/Mg_atm`	`1`	mass ratio of Fe to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Na/Mg_atm`	`1`	mass ratio of Na to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Al/Mg_atm`	`1`	mass ratio of Al to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ti/Mg_atm`	`1`	mass ratio of Ti to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/Mg_atm`	`1`	mass ratio of Ca to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/Mg_atm`	`1`	mass ratio of K to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/Mg_atm`	`1`	mass ratio of He to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/Mg_atm`	`1`	mass ratio of Ne to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/Mg_atm`	`1`	mass ratio of Ar to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/Mg_atm`	`1`	mass ratio of Kr to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/Mg_atm`	`1`	mass ratio of Xe to Mg in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Na/Fe_atm`	`1`	mass ratio of Na to Fe in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Al/Fe_atm`	`1`	mass ratio of Al to Fe in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ti/Fe_atm`	`1`	mass ratio of Ti to Fe in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/Fe_atm`	`1`	mass ratio of Ca to Fe in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/Fe_atm`	`1`	mass ratio of K to Fe in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/Fe_atm`	`1`	mass ratio of He to Fe in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/Fe_atm`	`1`	mass ratio of Ne to Fe in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/Fe_atm`	`1`	mass ratio of Ar to Fe in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/Fe_atm`	`1`	mass ratio of Kr to Fe in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/Fe_atm`	`1`	mass ratio of Xe to Fe in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Al/Na_atm`	`1`	mass ratio of Al to Na in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ti/Na_atm`	`1`	mass ratio of Ti to Na in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/Na_atm`	`1`	mass ratio of Ca to Na in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/Na_atm`	`1`	mass ratio of K to Na in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/Na_atm`	`1`	mass ratio of He to Na in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/Na_atm`	`1`	mass ratio of Ne to Na in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/Na_atm`	`1`	mass ratio of Ar to Na in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/Na_atm`	`1`	mass ratio of Kr to Na in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/Na_atm`	`1`	mass ratio of Xe to Na in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ti/Al_atm`	`1`	mass ratio of Ti to Al in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/Al_atm`	`1`	mass ratio of Ca to Al in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/Al_atm`	`1`	mass ratio of K to Al in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/Al_atm`	`1`	mass ratio of He to Al in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/Al_atm`	`1`	mass ratio of Ne to Al in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/Al_atm`	`1`	mass ratio of Ar to Al in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/Al_atm`	`1`	mass ratio of Kr to Al in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/Al_atm`	`1`	mass ratio of Xe to Al in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ca/Ti_atm`	`1`	mass ratio of Ca to Ti in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/Ti_atm`	`1`	mass ratio of K to Ti in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/Ti_atm`	`1`	mass ratio of He to Ti in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/Ti_atm`	`1`	mass ratio of Ne to Ti in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/Ti_atm`	`1`	mass ratio of Ar to Ti in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/Ti_atm`	`1`	mass ratio of Kr to Ti in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/Ti_atm`	`1`	mass ratio of Xe to Ti in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`K/Ca_atm`	`1`	mass ratio of K to Ca in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/Ca_atm`	`1`	mass ratio of He to Ca in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/Ca_atm`	`1`	mass ratio of Ne to Ca in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/Ca_atm`	`1`	mass ratio of Ar to Ca in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/Ca_atm`	`1`	mass ratio of Kr to Ca in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/Ca_atm`	`1`	mass ratio of Xe to Ca in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`He/K_atm`	`1`	mass ratio of He to K in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/K_atm`	`1`	mass ratio of Ne to K in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/K_atm`	`1`	mass ratio of Ar to K in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/K_atm`	`1`	mass ratio of Kr to K in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/K_atm`	`1`	mass ratio of Xe to K in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ne/He_atm`	`1`	mass ratio of Ne to He in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/He_atm`	`1`	mass ratio of Ar to He in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/He_atm`	`1`	mass ratio of Kr to He in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/He_atm`	`1`	mass ratio of Xe to He in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Ar/Ne_atm`	`1`	mass ratio of Ar to Ne in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/Ne_atm`	`1`	mass ratio of Kr to Ne in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/Ne_atm`	`1`	mass ratio of Xe to Ne in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Kr/Ar_atm`	`1`	mass ratio of Kr to Ar in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/Ar_atm`	`1`	mass ratio of Xe to Ar in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"
`Xe/Kr_atm`	`1`	mass ratio of Xe to Kr in the atmosphere	`outgas/calliope.py` `outgas/dummy.py` `outgas/wrapper.py`	always; outgas.module = "calliope"; outgas.module = "dummy"

Atmospheric escape¶

Column	Unit	Description	Producer	Written when	Read by
`p_xuv`	`bar`	pressure of XUV absorption	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py` `escape/boreas.py` `escape/wrapper.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"; escape.module = "boreas"; escape.module = "dummy"; escape.module = "zephyrus"	atmos_clim
`R_xuv`	`m`	radius of XUV absorption	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py` `atmos_clim/wrapper.py` `escape/boreas.py` `escape/wrapper.py`	always; atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"; escape.module = "boreas"; escape.module = "dummy"; escape.module = "zephyrus"	atmos_clim, escape, orbit, plot
`T_xuv`	`K`	temperature at R_xuv	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`g_xuv`	`m s-2`	gravity at R_xuv	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py` `atmos_clim/wrapper.py`	always; atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`cs_xuv`	`m s-1`	sound speed, at R_xuv	`escape/boreas.py` `escape/wrapper.py`	escape.module = "boreas"; escape.module = "dummy"
`esc_rate_total`	`kg s-1`	bulk escape rate	`escape/boreas.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape.module = "dummy"; escape.module = "zephyrus"	escape, outgas, plot
`esc_rate_H`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_O`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_C`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_N`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_S`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Si`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Mg`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Fe`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Na`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Al`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Ti`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Ca`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_K`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_He`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Ne`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Ar`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Kr`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot
`esc_rate_Xe`	`kg s-1`	escape rate of each element	`escape/boreas.py` `escape/common.py` `escape/wrapper.py`	always; escape.module = "boreas"; escape enabled; escape.module = "dummy"; escape.module = "zephyrus"	escape, plot

Climate quantities¶

Column	Unit	Description	Producer	Written when
`P_surf_clim`	`bar`	total surface pressure, after rainout	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`ocean_areacov`	`1`	ocean surface-area fraction	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`ocean_maxdepth`	`m`	maximum depth of oceans	`atmos_clim/agni.py` `atmos_clim/dummy.py` `atmos_clim/janus.py`	atmos_clim.module = "agni"; atmos_clim.module = "dummy"; atmos_clim.module = "janus"
`H2O_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`CO2_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`O2_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`H2_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`CH4_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`CO_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`N2_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`NH3_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`S2_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`SO2_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`H2S_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`He_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Ne_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Ar_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Kr_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Xe_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`SiO_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`SiO2_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Si_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Na_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`K_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Ti_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`TiO_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`TiO2_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Mg_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`MgO_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Al_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`HAlO2_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`SiH_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`SiH4_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Fe_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`FeO_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`FeO2H2_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`CaO_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`NaOH_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`Ca_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"
`KOH_ocean`	`kg m-2`	ocean surface density	`atmos_clim/agni.py`	atmos_clim.module = "agni"

Diagnostic variables¶

Column	Unit	Description	Producer	Written when	Read by
`wtg_surf`	`1`	Weak temperature gradient parameter at the surface	`atmos_clim/wrapper.py`	always
`roche_limit`	`m`	Roche limit, orbital distance	`orbit/wrapper.py`	always	orbit, utils
`breakup_period`	`s`	Critical day length	`orbit/wrapper.py`	always	orbit, utils
`hill_radius`	`m`	Hill radius, radial distance	`orbit/wrapper.py`	always	atmos_clim, orbit

Simulation's computational variables¶

Column	Unit	Description	Producer	Written when	Read by
`runtime`	`s`	Simulation wall-clock runtime	`proteus.py`	always	utils

Columns without a statically attributed producer¶

None; every column above has at least one statically attributed producer.

Synthetic observation CSV columns¶

Files in observe/ are tab-separated. They always contain:

Wavelength/um
None/ppm (baseline spectrum with all included gases)

When observe.remove_one_gas = true, additional columns are included:

<SPECIES>_removed/ppm for each leave-one-out run

Accretion mode columns (when `temperature_mode = 'accretion'`)¶

Column	Units	Description
`T_surf_accr`	K	Surface temperature from accretion energy balance
`DeltaT_accretion`	K	Accretion-energy temperature contribution

Energy conservation diagnostics (Aragog only)¶

Column	Units	Description
`E_state_J`	J	Total thermal energy of mantle
`E_state_cons_J`	J	Conservative thermal energy (frozen-mass frame)
`dE_predicted_cons_J`	J	Cumulative predicted energy change from flux integrals
`E_residual_cons_J`	J	Cumulative energy residual
`E_residual_cons_frac`	1	Fractional energy residual
`Q_radio_W`	W	Instantaneous radiogenic power
`Q_tidal_W`	W	Instantaneous tidal power
`solver_residual_J`	J	Entropy-equation flux-divergence self-consistency check (machine-zero by construction; non-zero flags an assembly bug, not integrator quality)

Synthetic observation output files¶

When observe.module = "petitRADTRANS", PROTEUS writes CSV files to observe/ for each composition source (outgas, profile, offchem). Files are named transit_<source>_synthesis.csv and eclipse_<source>_synthesis.csv.

The set of files is controlled by observe.spectrum_type:

both: writes both transit and eclipse files
transit: writes transit files only
eclipse: writes eclipse files only

All CSV files are tab-separated with a one-line header. The first column is always the wavelength grid; subsequent columns are depth values in ppm:

Column	Description
`Wavelength/um`	Wavelength [μm] on a log-spaced grid
`None/ppm`	Baseline depth [ppm] — all detected line species included
`<SPECIES>_removed/ppm`	Depth [ppm] with `<SPECIES>` removed (one column per line species found in the gas mixture)

The number of *_removed columns varies depending on which species have opacity tables present in $FWL_DATA/prt/input_data and exceed the clip_vmr threshold at the time of the calculation.

The plot_spectra diagnostic overlays all columns on a two-panel figure: the upper panel shows transit depths, the lower shows eclipse depths. The baseline (None/ppm) is drawn in black; each removed-species line is coloured by species identity.

Example synthetic spectrum: transit and eclipse depth with per-species overlays — **Example `plot_spectra` output.** Upper panel: primary transit depth \[ppm\]. Lower panel: secondary eclipse depth \[ppm\]. The black line is the baseline (all species present); coloured lines show the spectrum with each gas removed in turn.

Diagnostic plots¶

PROTEUS generates diagnostic plots at intervals controlled by params.out.plot_mod. Available plot types:

Plot file	Content
`plot_global`	Multi-panel overview: temperatures, fluxes, melt fraction, pressures
`plot_escape`	Escape rates by element, surface pressure, XUV flux
`plot_interior`	Mantle temperature, viscosity, heat flux, melt fraction profiles
`plot_interior_cmesh`	Composite mesh visualisation of interior structure
`plot_structure`	Interior density, temperature, composition profiles over time
`plot_atmosphere`	Atmospheric T(p) profiles at selected snapshots
`plot_atmosphere_cbar`	Atmospheric profiles with continuous time colorbar
`plot_emission`	Emission spectra at selected snapshots
`plot_fluxes_global`	Time evolution of all energy flux components
`plot_fluxes_atmosphere`	Net, upwelling, downwelling radiative fluxes
`plot_bolometry`	TOA bolometric flux evolution
`plot_sflux`	Stellar flux spectrum evolution (colorbar)
`plot_sflux_cross`	Stellar flux in wavelength bins over time
`plot_orbit`	Semi-major axis and eccentricity evolution
`plot_population`	Mass-radius diagram with exoplanet population overlay
`plot_visual`	Rendered disk image of planet and star
`plot_spectra`	Transit and eclipse depth spectra (baseline + per-species removed overlays)
`plot_chem_atmosphere`	Atmospheric chemical species mixing ratios