Parameter List

Every parameter in the default file bundled with ClimaParams.jl (src/parameters.toml), grouped by the sections of that file. This page is generated by the documentation build, so it cannot drift from the file it documents.

Name	Value	Type	Description
`universal_gas_constant`	`8.3144598`	float	Universal gas constant ($R$) (J mol⁻¹ K⁻¹).
`light_speed`	`299792458`	float	Speed of light in vacuum ($c$) (m s⁻¹).
`planck_constant`	`6.626e-34`	float	Planck's constant ($h$) (J s).
`boltzmann_constant`	`1.381e-23`	float	Boltzmann's constant ($k_B$) (J K⁻¹).
`stefan_boltzmann_constant`	`5.67e-8`	float	Stefan-Boltzmann constant ($\sigma$) (W m⁻² K⁻⁴).
`astronomical_unit`	`149597870700`	float	Astronomical unit (AU) (m). Exact by the IAU 2012 definition (Resolution B2).
`avogadro_constant`	`6.02214076e23`	float	Avogadro's constant ($N_A$) (mol⁻¹).

Name	Value	Type	Description
`planet_radius`	`6371000`	float	Mean radius of the planet (m).
`day`	`86400`	float	Length of a day (s).
`angular_velocity_planet_rotation`	`7.2921159e-5`	float	Angular velocity of planetary rotation ($\Omega$) (rad s⁻¹).
`f_plane_coriolis_frequency`	`0`	float	Coriolis frequency on an f-plane (s⁻¹).
`gravitational_acceleration`	`9.81`	float	Gravitational acceleration on the planet (m s⁻²).
`anomalistic_year_length`	`3.15584335e7`	float	Length of an anomalistic year (s). Derived as 365.2596 * `day`, from the JPL (Standish) 1800-2050 Earth-Moon barycenter rates: 360 / (35999.37244981 - 0.32327364) °/century.
`length_orbit_semi_major`	`149597870700`	float	Semi-major axis of the planetary orbit (m). Derived as 1 * `astronomical_unit`.
`total_solar_irradiance`	`1362`	float	Total solar irradiance (TSI) at the mean orbital distance (W m⁻²).
`epoch_time`	`2000-01-01T11:58:55.816`	datetime	J2000 epoch (Jan 1, 2000 11:58:55.816 UTC) as a DateTime.
`mean_anomaly_at_epoch`	`6.2400213902`	float	Mean anomaly at J2000 epoch (radians). Corresponds to 357.52688973°, from the JPL (Standish) 1800-2050 Earth-Moon barycenter elements as mean longitude minus longitude of perihelion, 100.46457166° - 102.93768193°.
`orbit_obliquity_at_epoch`	`0.4090926006`	float	Mean obliquity of the ecliptic at J2000 epoch (radians). Corresponds to 23.43927944° = 84381.406", the IAU 2006 value. Source: Capitaine et al. (2003), DOI: 10.1051/0004-6361:20020420.
`longitude_perihelion_at_epoch`	`4.93819412764`	float	Longitude of perihelion of the Sun's apparent orbit at J2000 epoch, measured eastward from the vernal equinox (radians). Corresponds to 282.93768193°, i.e. the JPL (Standish) 1800-2050 Earth-Moon barycenter longitude of perihelion 102.93768193° plus 180°.
`orbit_eccentricity_at_epoch`	`0.01671123`	float	Orbital eccentricity at J2000 epoch (unitless). JPL (Standish) 1800-2050 Earth-Moon barycenter value.

Name	Value	Type	Description
`gas_constant_dry_air`	`287.0`	float	Gas constant for dry air (J kg⁻¹ K⁻¹).
`isobaric_specific_heat_dry_air`	`1004.5`	float	Isobaric specific heat of dry air (J kg⁻¹ K⁻¹).
`molar_mass_dry_air`	`0.02897`	float	Molar mass of dry air (kg mol⁻¹).
`adiabatic_exponent_dry_air`	`0.28571428571`	float	Adiabatic exponent for dry air ($\kappa_d$), derived from $R_d/c_{pd}$ or 2/7 (unitless).
`density_liquid_water`	`1000`	float	Density of liquid water (kg m⁻³).
`density_ice_water`	`916.7`	float	Density of water ice (kg m⁻³).
`gas_constant_vapor`	`461.5`	float	Gas constant for water vapor (J kg⁻¹ K⁻¹).
`molar_mass_water`	`0.01801528`	float	Molar mass of water (kg mol⁻¹).
`isobaric_specific_heat_vapor`	`1859`	float	Isobaric specific heat of water vapor (J kg⁻¹ K⁻¹).
`isobaric_specific_heat_liquid`	`4181`	float	Isobaric specific heat of liquid water (J kg⁻¹ K⁻¹).
`isobaric_specific_heat_ice`	`2070.0`	float	Isobaric specific heat of ice (J kg⁻¹ K⁻¹).
`temperature_water_freeze`	`273.15`	float	Freezing temperature of water (K).
`temperature_minimum`	`150`	float	Minimum temperature for thermodynamic calculations (K).
`specific_humidity_minimum`	`1.0e-10`	float	Minimum specific humidity threshold (kg kg⁻¹). Used as a lower bound when comparing or regularizing humidity values.
`specific_humidity_maximum`	`0.1`	float	Maximum specific humidity for thermodynamic calculations (kg kg⁻¹).
`temperature_saturation_adjustment_init_min`	`150`	float	Minimum temperature for saturation adjustment initialization (K).
`temperature_saturation_adjustment_min`	`1`	float	Minimum temperature difference for unsaturated case in saturation adjustment (K).
`temperature_saturation_adjustment_max`	`1000`	float	Maximum temperature for saturation adjustment (K).
`temperature_homogenous_nucleation`	`233`	float	Temperature for homogeneous ice nucleation (K).
`pow_icenuc`	`1`	float	Exponent in the ice nucleation parameterization (unitless).
`temperature_triple_point`	`273.16`	float	Triple point temperature of water (K).
`thermodynamics_temperature_reference`	`273.16`	float	Reference temperature for thermodynamics (K).
`latent_heat_vaporization_at_reference`	`2500800`	float	Latent heat of vaporization at the reference temperature (J kg⁻¹).
`latent_heat_sublimation_at_reference`	`2834400`	float	Latent heat of sublimation at the reference temperature (J kg⁻¹).
`pressure_triple_point`	`611.657`	float	Triple point pressure of water (Pa).
`surface_tension_water`	`0.072`	float	Surface tension of water (N m⁻¹).
`entropy_dry_air`	`6864.8`	float	Specific entropy of dry air at the reference temperature and pressure (J kg⁻¹ K⁻¹).
`entropy_water_vapor`	`10513.6`	float	Specific entropy of water vapor at the reference temperature and pressure (J kg⁻¹ K⁻¹).
`entropy_reference_temperature`	`298.15`	float	Reference temperature for entropy calculations (K).
`potential_temperature_reference_pressure`	`100000.0`	float	Reference pressure for potential temperature calculations ($p_0$) (Pa).
`mean_sea_level_pressure`	`101325`	float	Mean sea level pressure ($p_{MSL}$) (Pa).
`temperature_surface_reference`	`288`	float	Surface temperature in a reference temperature profile (K).
`temperature_min_reference`	`215`	float	Minimum temperature in a reference temperature profile (K).
`reference_temperature_exponent`	`7`	float	Exponent $s_\text{ref}$ of the Exner function in the hydrostatic reference temperature profile $T_r(p) = T_\text{min} + (T_\text{sfc} - T_\text{min})\,\Pi(p)^{s_\text{ref}}$ (unitless).
`reference_relative_humidity`	`0.5`	float	Reference relative humidity used to build a reference total moisture specific humidity profile (unitless).
`reference_moisture_cutoff_pressure`	`25000`	float	Pressure cutoff above which the reference-state total-water specific humidity is clipped to zero (Pa). Keeps the reference profile confined to the troposphere, avoiding unphysical stratospheric growth.

Name	Value	Type	Description
`density_ocean_reference`	`1035`	float	Reference density of sea water (kg m⁻³).
`specific_heat_ocean`	`3991.86795711963`	float	Specific heat of sea water (J kg⁻¹ K⁻¹).

Name	Value	Type	Description
`richardson_critical`	`1.0`	float	Critical Richardson number ($Ri_{crit}$) defining the cutoff for stable mixing (unitless). Source: Frierson et al. (2006), DOI: 10.1175/JAS3753.1.
`surface_layer_fraction`	`0.1`	float	The surface layer thickness as a fraction of the planetary boundary layer height (unitless). Source: Frierson et al. (2006), DOI: 10.1175/JAS3753.1.
`gustiness`	`1.0`	float	A parameter accounting for near-surface gustiness (m s⁻¹).
`default_momentum_roughness_length`	`0.0002`	float	Default momentum roughness length (m).
`default_scalar_roughness_length`	`2.0e-5`	float	Default scalar roughness length (m).
`stanton_number`	`0.1`	float	Stanton number: ratio of heat to momentum roughness lengths (unitless).
`charnock_wind_low`	`10`	float	Upper bound of low-wind speed regime for Charnock parameter (m s⁻¹).
`charnock_parameter_low`	`0.011`	float	Charnock parameter $\alpha$ for momentum roughness length in low wind ($z_0 = \alpha u_*^2 / g$) (unitless).
`charnock_wind_high`	`18`	float	Lower bound of high-wind speed regime for Charnock parameter (m s⁻¹).
`charnock_parameter_high`	`0.018`	float	Charnock parameter $\alpha$ for momentum roughness length in high wind ($z_0 = \alpha u_*^2 / g$) (unitless).
`gustiness_coeff`	`1.25`	float	Coefficient multiplying Deardorff convective velocity scale in gustiness parameterization (unitless).
`gustiness_zi`	`1000.0`	float	Thickness of boundary layer assumed in the gustiness parameterization based on the Deardorff convective velocity scale (m).
`von_karman_constant`	`0.4`	float	The von Kármán constant ($\kappa$) describing the logarithmic velocity profile near a boundary (unitless).

Name	Value	Type	Description
`raupach_element_drag_coefficient`	`0.3`	float	Drag coefficient $C_R$ of an isolated roughness element in the Raupach canopy roughness model (unitless). Source: Raupach (1994), DOI: 10.1007/BF00709229.
`raupach_substrate_drag_coefficient`	`0.003`	float	Drag coefficient $C_S$ of the substrate surface in the absence of roughness elements, referenced to the wind speed at the canopy height $h$, in the Raupach canopy roughness model (unitless). Source: Raupach (1994), DOI: 10.1007/BF00709229.
`raupach_displacement_coefficient`	`7.5`	float	Coefficient $c_{d1}$ of the zero-plane displacement height $d/h = 1 - (1 - e^{-\sqrt{c_{d1} \Lambda}}) / \sqrt{c_{d1} \Lambda}$ in the Raupach canopy roughness model, with $\Lambda$ the plant area index (unitless). Source: Raupach (1994), DOI: 10.1007/BF00709229.
`raupach_frontal_area_ratio`	`0.5`	float	Ratio of the frontal area index $\lambda$ to the plant area index $\Lambda$ in the Raupach canopy roughness model, 0.5 for isotropically oriented canopy elements (unitless). Source: Raupach (1994), DOI: 10.1007/BF00709229.
`raupach_minimum_frontal_area_index`	`0.0`	float	Floor on the frontal area index $\lambda$ in the Raupach canopy roughness model (unitless). Zero applies no floor; a positive value stands in for stems and branches when the input is a leaf area index alone.
`raupach_max_ustar_to_canopy_wind_ratio`	`0.3`	float	Maximum ratio $(u_* / U_h)_{max}$ of the friction velocity to the wind speed at the canopy top, the sheltering limit in the Raupach canopy roughness model (unitless). Source: Raupach (1994), DOI: 10.1007/BF00709229.
`raupach_roughness_sublayer_depth_ratio`	`2.0`	float	Ratio $c_w = (z_w - d) / (h - d)$ of the heights of the roughness-sublayer top $z_w$ and the canopy top $h$ above the zero-plane displacement height $d$ in the Raupach canopy roughness model (unitless). It sets the roughness-sublayer influence function at the canopy top, $\Psi_h = \ln c_w - 1 + c_w^{-1}$, which is 0.193 for $c_w = 2$. Source: Raupach (1994), DOI: 10.1007/BF00709229.

Name	Value	Type	Description
`prandtl_number_0_businger`	`0.74`	float	The turbulent Prandtl number in neutral conditions ($Pr_0$) for the Businger universal functions (unitless). Source: Businger et al. (1971), DOI: 10.1175/1520-0469(1971)028<0181:FPRITA>2.0.CO;2.
`coefficient_a_m_businger`	`4.7`	float	Coefficient $a_m$ for the Businger momentum universal function (unitless). Source: Businger et al. (1971), DOI: 10.1175/1520-0469(1971)028<0181:FPRITA>2.0.CO;2.
`coefficient_b_m_businger`	`15.0`	float	Coefficient $b_m$ for the Businger momentum universal function (unitless). Source: Businger et al. (1971), DOI: 10.1175/1520-0469(1971)028<0181:FPRITA>2.0.CO;2.
`coefficient_a_h_businger`	`4.7`	float	Coefficient $a_h$ for the Businger heat universal function (unitless). Source: Businger et al. (1971), DOI: 10.1175/1520-0469(1971)028<0181:FPRITA>2.0.CO;2.
`coefficient_b_h_businger`	`9.0`	float	Coefficient $b_h$ for the Businger heat universal function (unitless). Source: Businger et al. (1971), DOI: 10.1175/1520-0469(1971)028<0181:FPRITA>2.0.CO;2.
`most_stability_parameter_businger`	`2.5`	float	The MOST stability parameter ($\zeta_a$) for the Businger universal functions (unitless). Source: Businger et al. (1971), DOI: 10.1175/1520-0469(1971)028<0181:FPRITA>2.0.CO;2.
`most_stability_exponent_businger`	`4.42`	float	The MOST stability exponent ($\gamma$) for the Businger universal functions (unitless). Source: Businger et al. (1971), DOI: 10.1175/1520-0469(1971)028<0181:FPRITA>2.0.CO;2.

Name	Value	Type	Description
`prandtl_number_0_gryanik`	`0.98`	float	The turbulent Prandtl number in neutral conditions ($Pr_0$) for the Gryanik universal functions (unitless). Source: Gryanik et al. (2020), DOI: 10.1175/JAS-D-19-0255.1.
`coefficient_a_m_gryanik`	`5.0`	float	Coefficient $a_m$ for the Gryanik momentum universal function (unitless). Source: Gryanik et al. (2020), DOI: 10.1175/JAS-D-19-0255.1.
`coefficient_a_h_gryanik`	`5.0`	float	Coefficient $a_h$ for the Gryanik heat universal function (unitless). Source: Gryanik et al. (2020), DOI: 10.1175/JAS-D-19-0255.1.
`coefficient_b_m_gryanik`	`0.3`	float	Coefficient $b_m$ for the Gryanik momentum universal function (unitless). Source: Gryanik et al. (2020), DOI: 10.1175/JAS-D-19-0255.1.
`coefficient_b_h_gryanik`	`0.4`	float	Coefficient $b_h$ for the Gryanik heat universal function (unitless). Source: Gryanik et al. (2020), DOI: 10.1175/JAS-D-19-0255.1.
`most_stability_parameter_gryanik`	`7.25`	float	The MOST stability parameter ($\zeta_a$) for the Gryanik universal functions (unitless). Source: Gryanik et al. (2020), DOI: 10.1175/JAS-D-19-0255.1.
`most_stability_exponent_gryanik`	`3.62`	float	The MOST stability exponent ($\gamma$) for the Gryanik universal functions (unitless). Source: Gryanik et al. (2020), DOI: 10.1175/JAS-D-19-0255.1.

Name	Value	Type	Description
`prandtl_number_0_grachev`	`0.98`	float	The turbulent Prandtl number in neutral conditions ($Pr_0$) for the Grachev universal functions (unitless). Source: Grachev et al. (2007), DOI: 10.1007/s10546-007-9177-6.
`coefficient_a_m_grachev`	`5.0`	float	Coefficient $a_m$ for the Grachev momentum universal function (unitless). Source: Grachev et al. (2007), DOI: 10.1007/s10546-007-9177-6.
`coefficient_a_h_grachev`	`5.0`	float	Coefficient $a_h$ for the Grachev heat universal function (unitless). Source: Grachev et al. (2007), DOI: 10.1007/s10546-007-9177-6.
`coefficient_b_m_grachev`	`0.7692307692307693`	float	Derived coefficient $b_m$ for the Grachev momentum universal function, calculated as $a_m / 6.5$ (unitless). Source: Grachev et al. (2007), DOI: 10.1007/s10546-007-9177-6.
`coefficient_b_h_grachev`	`5.0`	float	Coefficient $b_h$ for the Grachev heat universal function (unitless). Source: Grachev et al. (2007), DOI: 10.1007/s10546-007-9177-6.
`coefficient_c_h_grachev`	`3.0`	float	Coefficient $c_h$ for the Grachev heat universal function (unitless). Source: Grachev et al. (2007), DOI: 10.1007/s10546-007-9177-6.
`most_stability_parameter_grachev`	`3.6`	float	The MOST stability parameter ($\zeta_a$) for the Grachev universal functions (unitless). Source: Grachev et al. (2007), DOI: 10.1007/s10546-007-9177-6.
`most_stability_exponent_grachev`	`2.92`	float	The MOST stability exponent ($\gamma$) for the Grachev universal functions (unitless). Source: Grachev et al. (2007), DOI: 10.1007/s10546-007-9177-6.

Name	Value	Type	Description
`prandtl_number_0_cheng`	`1.0`	float	The turbulent Prandtl number in neutral conditions ($Pr_0$) for the Cheng universal functions (unitless). Source: Cheng et al. (2005), DOI: 10.1007/s10546-004-1425-4.
`coefficient_a_m_cheng`	`6.1`	float	Coefficient $a_m$ for the Cheng momentum universal function (unitless). Source: Cheng et al. (2005), DOI: 10.1007/s10546-004-1425-4.
`coefficient_a_h_cheng`	`5.3`	float	Coefficient $a_h$ for the Cheng heat universal function (unitless). Source: Cheng et al. (2005), DOI: 10.1007/s10546-004-1425-4.
`coefficient_b_m_cheng`	`2.5`	float	Coefficient $b_m$ for the Cheng momentum universal function (unitless). Source: Cheng et al. (2005), DOI: 10.1007/s10546-004-1425-4.
`coefficient_b_h_cheng`	`1.1`	float	Coefficient $b_h$ for the Cheng heat universal function (unitless). Source: Cheng et al. (2005), DOI: 10.1007/s10546-004-1425-4.
`most_stability_parameter_cheng`	`4.5`	float	The MOST stability parameter ($\zeta$) for the Cheng universal functions (unitless). Source: Cheng et al. (2005), DOI: 10.1007/s10546-004-1425-4.
`most_stability_exponent_cheng`	`2.28`	float	The MOST stability exponent ($\gamma$) for the Cheng universal functions (unitless). Source: Cheng et al. (2005), DOI: 10.1007/s10546-004-1425-4.

Name	Value	Type	Description
`entr_param_vec`	`[1.0, 1.0, 1.0, …]` (12 entries)	float	Data-driven entrainment parameter vector (unitless).
`entr_mult_limiter_coeff`	`0.0`	float	Exponent for the multiplicative entrainment limiter of the form $(1 - area)^c$ (unitless).
`turb_entr_param_vec`	`[0.001, 100000.0, 0.0]`	float	Data-driven turbulent entrainment parameter vector (unitless).
`entr_inv_tau`	`0`	float	Inverse timescale for entrainment (s⁻¹).
`entr_inv_length`	`0`	float	Inverse length scale for entrainment (m⁻¹).
`entr_coeff`	`1`	float	Coefficient for the $w/z$ term in the entrainment closure (unitless).
`entr_buoy_coeff`	`0`	float	Coefficient for the $b/w^2$ term in the entrainment closure (unitless).
`entr_vertdiv_coeff`	`1`	float	Coefficient for the vertical divergence term in the entrainment closure (unitless).
`min_area_limiter_scale`	`0.001`	float	Rate coefficient for the minimum area fraction limiter in entrainment (s⁻¹).
`min_area_limiter_power`	`1`	float	Exponent for the minimum area fraction limiter in both entrainment and detrainment (unitless).
`entr_detr_limit_inv_tau`	`0`	float	Inverse timescale for entrainment and detrainment for negligible area (s⁻¹).
`detr_inv_tau`	`0`	float	Inverse timescale for detrainment (s⁻¹).
`detr_coeff`	`0.001`	float	Coefficient for the $w$ term in the detrainment closure (unitless).
`detr_buoy_coeff`	`0.12`	float	Coefficient for the $b/w^2$ term in the detrainment closure (unitless). Source: Tan et al. (2018), Eq. (27).
`detr_buoy_inv_tau_max`	`0.01`	float	Maximum allowed inverse buoyancy timescale (s⁻¹), used to limit detrainment when velocity differences become small and prevent excessively fast detrainment.
`entr_detr_buoy_inv_tau_max`	`0.01`	float	Maximum allowed inverse buoyancy timescale (s⁻¹), used to limit entrainment and detrainment when velocity differences become small and prevent excessively fast entrainment and detrainment.
`detr_vertdiv_coeff`	`1`	float	Coefficient for the vertical divergence term in the detrainment closure (unitless).
`detr_massflux_vertdiv_coeff`	`1`	float	Coefficient for the mass flux vertical divergence term in the detrainment closure (unitless).
`detr_ramp_z_start`	`20000.0`	float	Start height of the sigmoid ramp for the detrainment top limiter (m).
`detr_ramp_steepness_factor`	`10.0`	float	Factor setting the steepness of the sigmoid ramp for the detrainment top limiter (unitless), where the steepness is the factor divided by $(z_\text{end} - z_\text{start})$.
`max_area_limiter_scale`	`0.001`	float	Rate coefficient for the maximum area fraction limiter in detrainment (s⁻¹).
`max_area_limiter_power`	`1`	float	Exponent for the maximum area fraction limiter in detrainment (unitless).

Name	Value	Type	Description
`updraft_number`	`1`	integer	Number of updrafts in the EDMF scheme (unitless).
`EDMF_max_surface_area`	`0.1`	float	Maximum combined updraft surface-area fraction (unitless), reached in the free-convection limit of the EDMF surface mass-flux closure. The per-updraft cap is `max_surface_area / N_updrafts`. Source: Cohen et al. (2022), Table 2.
`EDMF_max_area`	`0.9`	float	Maximum area fraction per updraft (unitless).
`EDMF_min_area`	`1.0e-5`	float	Minimum area fraction per updraft (unitless).
`EDMF_sfc_mass_flux_ustar_coeff`	`1.0`	float	Coefficient $c_u$ weighting the friction-velocity contribution in the EDMF surface mass-flux blend $a_s = a_{s,\max} \cdot w_^3 / (w_^3 + c_u u_*^3)$ (unitless).
`EDMF_convective_zi`	`1000.0`	float	Prescribed convective boundary-layer depth $z_i$ used in the EDMF surface mass-flux closure $w_*^3 = z_i \langle w'b' \rangle_s$ (m).
`EDMF_sfc_mass_flux_cap_fraction`	`0.5`	float	Fraction $\alpha$ of the surface scalar flux that the EDMF updraft may transport at the surface; caps the updraft mass-flux source so the environment retains at least $(1-\alpha)$ of every surface scalar flux (unitless).
`EDMF_interface_entr_efficiency`	`0.4`	float	Entrainment efficiency $A$ (unitless) in the EDMF interfacial entrainment diffusivity $K_e = \gamma w_e \Delta z$, $w_e = A \sqrt{TKE} / \max(\mathrm{Ri}_b, 1)$, which restores finite entrainment across an unresolved inversion represented by the interface-aware stability closure.

Name	Value	Type	Description
`mixing_length_eddy_viscosity_coefficient`	`0.14`	float	TKE diffusivity coefficient ($c_m$) for the EDMF mixing length closure (unitless). Source: Lopez-Gomez et al. (2020), Table 1.
`mixing_length_diss_coeff`	`0.22`	float	TKE dissipation coefficient ($c_d$) for the EDMF mixing length closure (unitless). Source: Lopez-Gomez et al. (2020), Table 1.
`mixing_length_static_stab_coeff`	`0.4`	float	Static stability coefficient ($c_b$) for the EDMF mixing length closure (unitless). Source: Lopez-Gomez et al. (2020), Table 1.
`mixing_length_tke_surf_scale`	`3.75`	float	Ratio of TKE to squared friction velocity ($\kappa_*^2$) in the surface layer for the EDMF mixing length closure (unitless). Source: Lopez-Gomez et al. (2020), Table 1.
`mixing_length_tke_surf_flux_coeff`	`2.5`	float	Coefficient multiplying flux in the $u_*^3$ surface flux formulation of TKE ($C_{flux}$) (unitless).
`mixing_length_Prandtl_number_scale`	`4.076923076923077`	float	Cospectral budget factor for turbulent Prandtl number ($\omega_{pr}$) for the EDMF mixing length closure (unitless). Source: Lopez-Gomez et al. (2020), Eq. (36).
`mixing_length_Prandtl_number_0`	`0.74`	float	Turbulent Prandtl number in neutral conditions ($Pr_{t,0}$) (unitless). Source: Lopez-Gomez et al. (2020), Table 1.
`mixing_length_Prandtl_maximum`	`10`	float	Maximum allowed turbulent Prandtl number (unitless).
`mixing_length_Ri_crit`	`0.25`	float	Critical gradient Richardson number ($Ri_{crit}$) (unitless). Source: Li (2019), Section 6.2.
`mixing_length_smin_ub`	`0.1`	float	Lower limit for the smooth minimum function in the mixing length closure (unitless). Source: Lopez-Gomez et al. (2020), Eq. (40).
`mixing_length_smin_rm`	`1.5`	float	Upper ratio limit for the smooth minimum function in the mixing length closure (unitless). Source: Lopez-Gomez et al. (2020), Eq. (40).
`mixing_length_l_max`	`1.0e6`	float	Upper limit for the length scale in the mixing length closure (m). Source: Lopez-Gomez et al. (2020).
`mixing_length_l_min`	`10`	float	Lower limit for the mixing length (m).
`mixing_length_tke_coeff`	`1.05`	float	Prefactor on the local Lopez-Gomez balance timescale in the empirical `l_TKE`; the effective eddy turnover timescale is `τ_ε = c_tke · √(c_d / a_pd)`. Order 1 (unitless).
`mixing_length_tke_l_inf`	`200.0`	float	Base BL mixing length (m) in the empirical `l_TKE = l_inf · √x · (1 + x) · exp(−x)`, `x = tke / (l_inf / τ_ε)²`. The peak mixing length is `(2 / e) · l_inf ≈ 0.74 · l_inf`.
`mixing_length_tke_tau_max`	`600.0`	float	Upper cap on the eddy turnover timescale `τ_ε = c_tke · √(c_d / a_pd)` (s) in the empirical `l_TKE`, representing the residual eddy turnover time from background processes. The cap is inert wherever local shear/buoyancy production is strong.
`mixing_length_alpha`	`1.05`	float	Non-equilibrium correction factor α_kε on the balance-derived l_TKE in the mixing-length closure, accounting for the ε/ω-lag (dε/dt = 0 rather than dTKE/dt = 0) — unitless. Order 1; larger values increase the mixing length under local shear/buoyancy balance. Deprecated, will be removed in v2.0.
`mixing_length_l_0`	`100.0`	float	Base BL mixing length (m) in the empirical `l_TKE` ceiling `l_empirical_CC = l_0 · (1 + x) · exp(−x)`, with `x = tke / tke_max`. The ceiling equals `l_0` at tke = 0 and decays exponentially for tke ≫ tke_max. Deprecated, will be removed in v2.0.
`mixing_length_tke_max`	`5.0`	float	Characteristic TKE magnitude (m²/s²) in the empirical `l_TKE` ceiling `l_0 · (1 + x) · exp(−x)`; larger values relax the cap. Deprecated, will be removed in v2.0.
`mixing_length_min`	`1.0`	float	Minimum mixing length (m) applied to the master `l_final` in the SGS closure to prevent division-by-zero in the dissipation rate ε = c_d · tke^{3/2} / l_mix. Deprecated, will be removed in v2.0.
`mixing_length_param_vec`	`[0.0, 0.0, 0.0, …]` (5 entries)	float	Data-driven mixing length parameter vector (unitless).

Name	Value	Type	Description
`entrainment_factor`	`0.13`	float	Scaling constant for entrainment rate (unitless). Source: Cohen et al. (2022), Table 2.
`detrainment_factor`	`0.51`	float	Scaling constant for detrainment rate (unitless). Source: Cohen et al. (2022), Table 2.
`turbulent_entrainment_factor`	`0.075`	float	Scaling constant for turbulent entrainment rate (unitless). Source: Cohen et al. (2022), Table 2.
`entrainment_smin_tke_coeff`	`0.3`	float	Scaling constant of the TKE term in the entrainment/detrainment inverse timescale smooth minimum (unitless). Source: Cohen et al. (2022), Table 2.
`updraft_mixing_frac`	`0.25`	float	Fraction of updraft air used for buoyancy mixing in the entrainment/detrainment formulation (unitless). Source: Cohen et al. (2022), Table 2.
`entrainment_area_limiter_scale`	`4.0`	float	Scaling factor (amplitude) of the exponential detrainment area limiter (unitless).
`entrainment_area_limiter_power`	`10.0`	float	Exponential decay constant in the detrainment area limiter (unitless).
`entrainment_scale`	`0.0004`	float	Dimensional constant scaling the logistic function argument in the entrainment/detrainment dry term (s⁻¹). Source: Cohen et al. (2022), Table 2.
`entrainment_sorting_power`	`2.0`	float	Sorting power for the moisture term in the entrainment/detrainment formulation (unitless). Source: Cohen et al. (2022), Table 2.

Name	Value	Type	Description
`prandtl_number_0_holtslag`	`1.0`	float	The turbulent Prandtl number in neutral conditions ($Pr_0$) for the Holtslag universal functions (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.
`coefficient_a_m_holtslag`	`0.7`	float	Coefficient $a_m$ for the Holtslag momentum universal function (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.
`coefficient_a_h_holtslag`	`0.7`	float	Coefficient $a_h$ for the Holtslag heat universal function (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.
`coefficient_b_m_holtslag`	`0.75`	float	Coefficient $b_m$ for the Holtslag momentum universal function (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.
`coefficient_b_h_holtslag`	`0.75`	float	Coefficient $b_h$ for the Holtslag heat universal function (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.
`coefficient_c_m_holtslag`	`5.0`	float	Coefficient $c_m$ for the Holtslag momentum universal function (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.
`coefficient_c_h_holtslag`	`5.0`	float	Coefficient $c_h$ for the Holtslag heat universal function (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.
`coefficient_d_m_holtslag`	`0.35`	float	Coefficient $d_m$ for the Holtslag momentum universal function (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.
`coefficient_d_h_holtslag`	`0.35`	float	Coefficient $d_h$ for the Holtslag heat universal function (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.
`most_stability_parameter_holtslag`	`4.0`	float	The MOST stability parameter ($\zeta_a$) for the Holtslag universal functions (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.
`most_stability_exponent_holtslag`	`2.14`	float	The MOST stability exponent ($\gamma$) for the Holtslag universal functions (unitless). Source: Holtslag et al. (1988), DOI: 10.1175/1520-0450(1988)027<0689:AMOTNS>2.0.CO;2.

Name	Value	Type	Description
`prandtl_number_0_beljaars`	`1.0`	float	The turbulent Prandtl number in neutral conditions ($Pr_0$) for the Beljaars universal functions (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.
`coefficient_a_m_beljaars`	`1.0`	float	Coefficient $a_m$ for the Beljaars momentum universal function (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.
`coefficient_a_h_beljaars`	`1.0`	float	Coefficient $a_h$ for the Beljaars heat universal function (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.
`coefficient_b_m_beljaars`	`0.667`	float	Coefficient $b_m$ for the Beljaars momentum universal function (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.
`coefficient_b_h_beljaars`	`0.667`	float	Coefficient $b_h$ for the Beljaars heat universal function (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.
`coefficient_c_m_beljaars`	`5.0`	float	Coefficient $c_m$ for the Beljaars momentum universal function (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.
`coefficient_c_h_beljaars`	`5.0`	float	Coefficient $c_h$ for the Beljaars heat universal function (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.
`coefficient_d_m_beljaars`	`0.35`	float	Coefficient $d_m$ for the Beljaars momentum universal function (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.
`coefficient_d_h_beljaars`	`0.35`	float	Coefficient $d_h$ for the Beljaars heat universal function (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.
`most_stability_parameter_beljaars`	`3.4`	float	The MOST stability parameter ($\zeta_a$) for the Beljaars universal functions (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.
`most_stability_exponent_beljaars`	`2.04`	float	The MOST stability exponent ($\gamma$) for the Beljaars universal functions (unitless). Source: Beljaars et al. (1991), DOI: 10.1175/1520-0450(1991)030<0327:FPOLSF>2.0.CO;2.

Name	Value	Type	Description
`minimum_updraft_velocity`	`0.001`	float	Minimum updraft-environment vertical velocity difference (m s⁻¹).
`minimum_updraft_top`	`500.0`	float	Minimum updraft height limiter (m).

Name	Value	Type	Description
`pressure_normalmode_buoy_coeff1`	`0.12`	float	Pressure buoyancy coefficient in the perturbation pressure closure (unitless). Source: He et al. (2022), Eq. (34).
`pressure_normalmode_adv_coeff`	`0.1`	float	Pressure advection (damping) coefficient in the perturbation pressure closure (unitless). Source: He et al. (2022), Eq. (34).
`pressure_normalmode_drag_coeff`	`10.0`	float	Updraft pressure drag coefficient in the perturbation pressure closure (unitless). Source: He et al. (2022), Eq. (34).
`pressure_normalmode_param_vec`	`[0.0, 0.0, 0.0, …]` (5 entries)	float	Data-driven perturbation pressure parameter vector (unitless).

Name	Value	Type	Description
`EDMF_thermodynamics_moisture_model`	`equilibrium`	string	Moisture model for EDMF thermodynamics. Options: 'equilibrium' (default), 'nonequilibrium'.
`EDMF_thermodynamics_covariance_model`	`diagnostic`	string	Covariance model for EDMF thermodynamics. Options: 'diagnostic' (default), 'prognostic'.
`diagnostic_covariance_coeff`	`2.1`	float	Prefactor in the turbulent production term of the EDMF covariance equation (unitless).
`EDMF_thermodynamics_diagnostic_covar_limiter`	`0.001`	float	Regularization epsilon for the denominator in diagnostic covariance calculations (unitless).
`Tq_correlation_coefficient`	`0.6`	float	Default correlation coefficient between T' and q_tot' perturbations, used in SGS quadratures (unitless). Valid range: [-1, 1].
`EDMF_thermodynamics_sgs`	`mean`	string	Environmental sub-grid scale model for EDMF. Options: 'mean' (default), 'quadrature'.
`EDMF_thermodynamics_quadrature_order`	`3`	integer	Number of 1D quadrature points for SGS sampling in EDMF (unitless).
`EDMF_thermodynamics_quadrature_type`	`log-normal`	string	Assumed PDF shape for environmental variables ($q_{tot}, \theta_{liq_ice}$) with SGS quadrature. Options: 'log-normal' (default), 'gaussian'.
`sgs_variance_geometric_coeff`	`0.08333333333333333`	float	Coefficient $c_g$ of the horizontal resolved-gradient (geometric) SGS variance term in ClimaAtmos (unitless). $1/12$ is the variance of a linear field over a uniform cell.
`sgs_variance_horizontal_scale_factor`	`1.0`	float	Multiplier $c_{\Delta x}$ on the horizontal grid scale $\Delta x_h$ in the geometric SGS variance term (unitless).
`sgs_variance_vertical_scale_factor`	`1.0`	float	Multiplier $c_{\Delta z}$ on the vertical grid scale $\Delta z$ in the geometric SGS variance term (unitless).
`sgs_variance_max_rel_std`	`0.5`	float	Upper bound on the SGS total-water standard deviation relative to the grid-mean total water, applied to the diagnosed $q'q'$ whatever closure produced it (unitless). 0.5 keeps every quadrature node at non-negative total water.
`sgs_variance_geometric_Ri_factor`	`1.0`	float	Factor $k$ in $\mathrm{Ri}_0 = k \mathrm{Ri}_{crit}$, the scale of the Richardson-number weight on the geometric SGS variance term (unitless).
`sgs_liquid_uniform_fraction`	`1.0`	float	Fraction of cloud liquid that is uniform over the SGS quadrature nodes (unitless). Valid range: [0, 1].
`sgs_ice_uniform_fraction`	`1.0`	float	Fraction of cloud ice that is uniform over the SGS quadrature nodes (unitless). Valid range: [0, 1].

Name	Value	Type	Description
`gcmdriven_momentum_relaxation_timescale`	`21600.0`	float	Relaxation timescale for horizontal winds toward the forcing profile in Single Column Model (SCM) cases (s). Source: Shen et al. (2022).
`gcmdriven_scalar_relaxation_timescale`	`86400.0`	float	Relaxation timescale for scalars (temperature, humidity) toward the forcing profile in SCM cases (s). Source: Shen et al. (2022).
`gcmdriven_relaxation_minimum_height`	`3000.0`	float	Start height for relaxation toward the forcing profile in SCM cases (m). Source: Shen et al. (2022).
`gcmdriven_relaxation_maximum_height`	`3500.0`	float	Height at which the relaxation coefficient becomes 1 in SCM cases (m). Source: Shen et al. (2022).

Name	Value	Type	Description
`microphysics_model_precipitation_fraction`	`prescribed`	string	Precipitation fraction model choice for 1-moment microphysics with EDMF. Options: 'prescribed' (default), 'cloud_cover'.
`microphysics_prescribed_precipitation_fraction`	`1.0`	float	Prescribed value of the precipitation fraction (unitless).
`microphysics_precipitation_fraction_limiter`	`0.3`	float	Minimum allowed precipitation fraction when using the 'cloud_cover' model (unitless).

Name	Value	Type	Description
`precipitation_timescale`	`1000`	float	Precipitation formation timescale for the 0-moment microphysics scheme (s).
`specific_humidity_precipitation_threshold`	`5.0e-6`	float	Precipitation formation threshold in terms of specific humidity for the 0-moment microphysics scheme (unitless).
`supersaturation_precipitation_threshold`	`0.02`	float	Precipitation formation threshold in terms of supersaturation for the 0-moment microphysics scheme (unitless).

Name	Value	Type	Description
`thermal_conductivity_of_air`	`0.024`	float	Thermal conductivity of air (J m⁻¹ s⁻¹ K⁻¹).
`diffusivity_of_water_vapor`	`2.26e-5`	float	Diffusivity of water vapor in air (m² s⁻¹).
`kinematic_viscosity_of_air`	`1.6e-5`	float	Kinematic viscosity of air (m² s⁻¹).
`condensation_evaporation_timescale`	`10.0`	float	Condensation/evaporation timescale for non-equilibrium microphysics (s).
`liquid_cloud_effective_radius`	`1.4e-5`	float	Assumed constant effective radius for liquid cloud droplets (m).
`ice_cloud_effective_radius`	`2.5e-5`	float	Assumed constant effective radius for ice cloud particles (m).
`sublimation_deposition_timescale`	`10.0`	float	Deposition/sublimation timescale for non-equilibrium microphysics (s).
`prescribed_cloud_droplet_number_concentration`	`1.0e8`	float	Prescribed number concentration of cloud droplets (m⁻³).

Name	Value	Type	Description
`microph_scaling_acnv`	`1.0`	float	Scaling factor for the 1-moment autoconversion rate (unitless).
`microph_scaling_accr`	`1.0`	float	Scaling factor for the 1-moment accretion rate (unitless).
`microph_scaling_evap`	`1.0`	float	Scaling factor for the 1-moment rain evaporation rate (unitless).
`microph_scaling_dep_sub`	`1.0`	float	Scaling factor for the 1-moment snow deposition/sublimation rate (unitless).
`microph_scaling_melt`	`1.0`	float	Scaling factor for the 1-moment snow melting rate (unitless).
`rain_drop_drag_coefficient`	`0.55`	float	Rain drop drag coefficient for the 1-moment microphysics scheme (unitless).
`ice_snow_threshold_radius`	`6.25e-5`	float	Threshold particle radius separating ice and snow for the 1-moment microphysics scheme (m).
`cloud_ice_size_distribution_coefficient_n0`	`2.0e7`	float	Cloud ice size distribution parameter $n_0$ for the 1-moment microphysics scheme (m⁻⁴).
`cloud_ice_crystals_length_scale`	`1.0e-5`	float	Cloud ice particle length scale for the 1-moment microphysics scheme (m).
`cloud_ice_mass_size_relation_coefficient_me`	`3`	float	Exponent $m_e$ in the mass-size relation for cloud ice in the 1-moment microphysics scheme (unitless).
`cloud_ice_mass_size_relation_coefficient_chim`	`1`	float	Coefficient $\chi_m$ in the mass-size relation for cloud ice in the 1-moment microphysics scheme (unitless).
`cloud_ice_mass_size_relation_coefficient_delm`	`0`	float	Coefficient $\delta_m$ in the mass-size relation for cloud ice in the 1-moment microphysics scheme (unitless).
`cloud_liquid_water_specific_humidity_autoconversion_threshold`	`0.0005`	float	Rain formation threshold in terms of specific humidity for the 1-moment microphysics scheme (unitless). Also used as the threshold for strong vertical velocities (convective regime) in the vertical velocity dependent Kessler rain formation.
`cloud_liquid_water_specific_humidity_autoconversion_threshold_stratiform_scale`	`1.0`	float	Multiplicative scale factor applied to cloud_liquid_water_specific_humidity_autoconversion_threshold to get the stratiform-regime (weak vertical velocities) threshold in the vertical-velocity-dependent Kessler rain formation (unitless). Default 1.0 (stratiform threshold equals the convective one, giving the classic velocity-independent Kessler scheme).
`cloud_liquid_water_specific_humidity_autoconversion_threshold_stratiform`	`0.0005`	float	Rain formation threshold in terms of specific humidity for weak vertical velocities (stratiform regime) in the vertical velocity dependent Kessler rain formation (unitless). Equal to cloud_liquid_water_specific_humidity_autoconversion_threshold by default, which gives the classic velocity-independent Kessler scheme. Deprecated, will be removed in v2.0.
`rain_autoconversion_timescale`	`1000.0`	float	Rain formation timescale for the 1-moment microphysics scheme (s). Also used as the timescale for strong vertical velocities (convective regime) in the vertical velocity dependent Kessler rain formation.
`rain_autoconversion_timescale_stratiform_scale`	`1.0`	float	Multiplicative scale factor applied to rain_autoconversion_timescale to get the stratiform-regime (weak vertical velocities) timescale in the vertical-velocity-dependent Kessler rain formation (unitless). Default 1.0 (stratiform timescale equals the convective one, giving the classic velocity-independent Kessler scheme).
`rain_autoconversion_timescale_stratiform`	`1000.0`	float	Rain formation timescale for weak vertical velocities (stratiform regime) in the vertical velocity dependent Kessler rain formation (s). Equal to rain_autoconversion_timescale by default, which gives the classic velocity-independent Kessler scheme. Deprecated, will be removed in v2.0.
`rain_autoconversion_velocity_scale`	`1.5`	float	Blending velocity scale when using vertical velocity dependent rain formation (m s⁻¹).
`rain_ventilation_coefficient_a`	`1.5`	float	Rain ventilation coefficient $a$ for the 1-moment microphysics scheme (unitless).
`rain_ventilation_coefficient_b`	`0.53`	float	Rain ventilation coefficient $b$ for the 1-moment microphysics scheme (unitless).
`rain_drop_size_distribution_coefficient_n0`	`1.6e7`	float	Rain drop size distribution coefficient $n_0$ for the 1-moment microphysics scheme (m⁻⁴).
`rain_drop_length_scale`	`0.001`	float	Rain drop length scale for the 1-moment microphysics scheme (m).
`rain_minimum_inverse_lambda`	`1.0e-8`	float	Minimum value for the inverse of the shape parameter $\lambda$ of the rain drop size distribution (m).
`rain_mass_size_relation_coefficient_me`	`3`	float	Exponent $m_e$ in the mass-size relation for rain in the 1-moment microphysics scheme (unitless).
`rain_cross_section_size_relation_coefficient_ae`	`2`	float	Exponent $a_e$ in the cross section-size relation for rain in the 1-moment microphysics scheme (unitless).
`rain_terminal_velocity_size_relation_coefficient_ve`	`0.5`	float	Exponent $v_e$ in the terminal velocity-size relation for rain in the 1-moment microphysics scheme (unitless).
`rain_mass_size_relation_coefficient_chim`	`1`	float	Coefficient $\chi_m$ in the mass-size relation for rain in the 1-moment microphysics scheme (unitless).
`rain_mass_size_relation_coefficient_delm`	`0`	float	Coefficient $\delta_m$ in the mass-size relation for rain in the 1-moment microphysics scheme (unitless).
`rain_cross_section_size_relation_coefficient_chia`	`1`	float	Coefficient $\chi_a$ in the cross section-size relation for rain in the 1-moment microphysics scheme (unitless).
`rain_cross_section_size_relation_coefficient_dela`	`0`	float	Coefficient $\delta_a$ in the cross section-size relation for rain in the 1-moment microphysics scheme (unitless).
`rain_terminal_velocity_size_relation_coefficient_chiv`	`1`	float	Coefficient $\chi_v$ in the terminal velocity-size relation for rain in the 1-moment microphysics scheme (unitless).
`rain_terminal_velocity_size_relation_coefficient_delv`	`0`	float	Coefficient $\delta_v$ in the terminal velocity-size relation for rain in the 1-moment microphysics scheme (unitless).
`rain_snow_velocity_dispersion_coefficient`	`0.2`	float	Velocity dispersion coefficient for rain and snow in the 1-moment microphysics scheme (unitless).
`cloud_liquid_sedimentation_number_concentration`	`5.0e8`	float	Number concentration of cloud liquid particles for sedimentation (m⁻³).
`cloud_ice_sedimentation_number_concentration`	`100000.0`	float	Number concentration of cloud ice particles for sedimentation (m⁻³).
`cloud_ice_number_temperature_fit_prefactor`	`1000.0`	float	Prefactor N_ref of the temperature-dependent cloud ice number concentration (m⁻³). Converts the fit from per liter to per m³. Meyers et.al. 1992 doi.org/10.1175/1520-0450(1992)031⟨0708:Npinpi⟩2.0.Co;2.
`cloud_ice_number_temperature_fit_intercept`	`-2.8`	float	Intercept a of the exponential temperature fit of the cloud ice number concentration (unitless). doi.org/10.1175/1520-0450(1992)031⟨0708:Npinpi⟩2.0.Co;2.
`cloud_ice_number_temperature_fit_slope`	`0.262`	float	Slope b of the exponential temperature fit of the cloud ice number concentration (K⁻¹). Meyers et.al. 1992 doi.org/10.1175/1520-0450(1992)031⟨0708:Npinpi⟩2.0.Co;2.
`cloud_ice_number_max`	`1.0e7`	float	Upper bound on the temperature-dependent cloud ice number concentration (m⁻³). Meyers et.al. 1992 doi.org/10.1175/1520-0450(1992)031⟨0708:Npinpi⟩2.0.Co;2.
`microphysics_max_latent_heating_rate`	`0.03333333333333333`	float	Upper bound on the latent heating or cooling rate of the 1-moment microphysics phase changes within a substep, applied by scaling all phase-change transfers (K s⁻¹). inf disables the limiter.
`microphysics_pool_exhaustion_newton_iterations`	`2`	integer	Number of Newton iterations used by the 1-moment joint vapor relaxation to locate the time within a substep at which an evaporating or sublimating pool is exhausted (unitless). Fixed count for GPU performance. 2 gives ~0.1 % accuracy of the exhausting transfer in 90 % of stiff cases, 3 gives ~0.5 % at the 99th percentile.
`homogeneous_freezing_timescale`	`1`	float	Timescale of the homogeneous freezing of cloud liquid droplets into ice (s).
`Reisner_et_al_A_parameter`	`0.66`	float	Parameter $A$ for Bigg heterogeneous freezing of cloud droplets (K⁻¹). Source: Reisner et al. (1998), Eq. (A22), DOI: 10.1002/qj.49712454804.
`Reisner_et_al_B_parameter`	`100`	float	Parameter $B$ for Bigg heterogeneous freezing of cloud droplets (m⁻³ s⁻¹). Source: Reisner et al. (1998), Eq. (A22), DOI: 10.1002/qj.49712454804.
`cloud_ice_apparent_density`	`500`	float	The apparent density of cloud ice particles (kg m⁻³). Source: Lin et al. (2021), DOI: 10.1029/2020JD034157.
`snow_apparent_density`	`100`	float	The apparent density of snow particles (kg m⁻³). Source: Lin et al. (2021), DOI: 10.1029/2020JD034157.
`cloud_ice_specific_humidity_autoconversion_threshold`	`1.0e-6`	float	Snow autoconversion threshold in terms of specific humidity for the 1-moment microphysics scheme (unitless).
`snow_autoconversion_timescale`	`100`	float	Snow autoconversion timescale for the 1-moment microphysics scheme (s).
`snow_ventilation_coefficient_a`	`0.65`	float	Snow ventilation coefficient $a$ for the 1-moment microphysics scheme (unitless).
`snow_ventilation_coefficient_b`	`0.44`	float	Snow ventilation coefficient $b$ for the 1-moment microphysics scheme (unitless).
`snow_flake_size_distribution_coefficient_mu`	`4.36e9`	float	Snow size distribution coefficient $\mu$ for the 1-moment microphysics scheme (m⁻⁴).
`snow_flake_size_distribution_coefficient_nu`	`0.63`	float	Snow size distribution coefficient $\nu$ for the 1-moment microphysics scheme (unitless).
`snow_flake_length_scale`	`0.001`	float	Snow particle length scale for the 1-moment microphysics scheme (m).
`snow_mass_size_relation_coefficient_me`	`2`	float	Exponent $m_e$ in the mass-size relation for snow in the 1-moment microphysics scheme (unitless).
`snow_cross_section_size_relation_coefficient`	`2`	float	Exponent in the cross section-size relation for snow in the 1-moment microphysics scheme (unitless).
`snow_terminal_velocity_size_relation_coefficient`	`0.25`	float	Exponent in the terminal velocity-size relation for snow in the 1-moment microphysics scheme (unitless).
`snow_mass_size_relation_coefficient_chim`	`1`	float	Coefficient $\chi_m$ in the mass-size relation for snow in the 1-moment microphysics scheme (unitless).
`snow_mass_size_relation_coefficient_delm`	`0`	float	Coefficient $\delta_m$ in the mass-size relation for snow in the 1-moment microphysics scheme (unitless).
`snow_cross_section_size_relation_coefficient_chia`	`1`	float	Coefficient $\chi_a$ in the cross section-size relation for snow in the 1-moment microphysics scheme (unitless).
`snow_cross_section_size_relation_coefficient_dela`	`0`	float	Coefficient $\delta_a$ in the cross section-size relation for snow in the 1-moment microphysics scheme (unitless).
`snow_terminal_velocity_size_relation_coefficient_chiv`	`1`	float	Coefficient $\chi_v$ in the terminal velocity-size relation for snow in the 1-moment microphysics scheme (unitless).
`snow_terminal_velocity_size_relation_coefficient_delv`	`0`	float	Coefficient $\delta_v$ in the terminal velocity-size relation for snow in the 1-moment microphysics scheme (unitless).
`snow_aspect_ratio`	`0.15`	float	Assumed aspect ratio for snow in the 1-moment microphysics scheme (unitless).
`snow_aspect_ratio_coefficient`	`0.3333333333333333`	float	Power law coefficient for terminal velocity dependence on snow aspect ratio (unitless). Source: Chen et al. (2022), DOI: 10.1016/j.atmosres.2022.106171.
`cloud_liquid_rain_collision_efficiency`	`0.8`	float	Collision efficiency between cloud liquid water and rain for the 1-moment scheme (unitless).
`cloud_liquid_snow_collision_efficiency`	`0.1`	float	Collision efficiency between cloud liquid water and snow for the 1-moment scheme (unitless).
`cloud_ice_rain_collision_efficiency`	`1`	float	Collision efficiency between cloud ice and rain for the 1-moment scheme (unitless).
`cloud_ice_snow_collision_efficiency`	`0.1`	float	Collision efficiency between cloud ice and snow for the 1-moment scheme (unitless).
`rain_snow_collision_efficiency`	`1`	float	Collision efficiency between rain and snow for the 1-moment scheme (unitless).

Name	Value	Type	Description
`TC1980_autoconversion_coeff_D`	`3268.0`	float	Coefficient $D$ in the Tripoli and Cotton (1980) rain autoconversion parameterization ($m^{3b} s^{-1}$). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`TC1980_autoconversion_coeff_a`	`2.3333333333333335`	float	Coefficient $a$ (default 7/3) in the Tripoli and Cotton (1980) rain autoconversion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`TC1980_autoconversion_coeff_b`	`-0.3333333333333333`	float	Coefficient $b$ (default -1/3) in the Tripoli and Cotton (1980) rain autoconversion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`TC1980_autoconversion_coeff_r_0`	`7.0e-6`	float	Threshold size $r_0$ in the Tripoli and Cotton (1980) rain autoconversion parameterization (m). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`TC1980_autoconversion_coeff_me_liq`	`3.0`	float	Mass-size relation exponent $m_e$ in the Tripoli and Cotton (1980) scheme (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`TC1980_accretion_coeff_A`	`4.7`	float	Coefficient $A$ in the Tripoli and Cotton (1980) accretion parameterization (s⁻¹). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`B1994_autoconversion_coeff_C`	`3.0e34`	float	Coefficient $C$ in the Beheng (1994) autoconversion parameterization ($m^{3(c+b-1)} s^{-1} kg^{-(b-1)}$). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`B1994_autoconversion_coeff_a`	`-1.7`	float	Coefficient $a$ in the Beheng (1994) autoconversion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`B1994_autoconversion_coeff_b`	`4.7`	float	Coefficient $b$ in the Beheng (1994) autoconversion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`B1994_autoconversion_coeff_c`	`-3.3`	float	Coefficient $c$ in the Beheng (1994) autoconversion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`B1994_autoconversion_coeff_d_low`	`3.9`	float	Coefficient $d_{low}$ in the Beheng (1994) autoconversion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`B1994_autoconversion_coeff_d_high`	`9.9`	float	Coefficient $d_{high}$ in the Beheng (1994) autoconversion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`B1994_autoconversion_coeff_N_0`	`2.0e8`	float	Coefficient $N_0$ in the Beheng (1994) autoconversion parameterization (m⁻³). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`B1994_accretion_coeff_A`	`6.0`	float	Coefficient $A$ in the Beheng (1994) accretion parameterization (s⁻¹). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`KK2000_autoconversion_coeff_A`	`7.42e13`	float	Coefficient $A$ in the Khairoutdinov and Kogan (2000) autoconversion parameterization ($m^{3(b+c)} s^{-1} kg^{-c}$). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`KK2000_autoconversion_coeff_a`	`2.47`	float	Coefficient $a$ in the Khairoutdinov and Kogan (2000) autoconversion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`KK2000_autoconversion_coeff_b`	`-1.79`	float	Coefficient $b$ in the Khairoutdinov and Kogan (2000) autoconversion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`KK2000_autoconversion_coeff_c`	`-1.47`	float	Coefficient $c$ in the Khairoutdinov and Kogan (2000) autoconversion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`KK2000_accretion_coeff_A`	`67.0`	float	Coefficient $A$ in the Khairoutdinov and Kogan (2000) accretion parameterization ($m^{3b} kg^{-b} s^{-1}$). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`KK2000_accretion_coeff_a`	`1.15`	float	Coefficient $a$ in the Khairoutdinov and Kogan (2000) accretion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`KK2000_accretion_coeff_b`	`-1.3`	float	Coefficient $b$ in the Khairoutdinov and Kogan (2000) accretion parameterization (unitless). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`LD2004_R_6C_coeff`	`7.5`	float	Coefficient in the Liu and Daum (2004) autoconversion parameterization ($\mu m^{3/2} kg^{1/6} m^{-1/2}$). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`LD2004_E_0_coeff`	`1.08e10`	float	Coefficient $E_0$ in the Liu and Daum (2004) autoconversion parameterization ($m^3 kg^{-2} s^{-1}$). Source: Wood (2005), DOI: 10.1175/JAS3530.1.
`Variable_time_scale_autoconversion_coeff_alpha`	`1.0`	float	Exponent of number density in the function describing the autoconversion timescale (unitless).
`threshold_smooth_transition_steepness`	`10.0`	float	Steepness parameter for the smooth transition function used in threshold-based processes (unitless).

Name	Value	Type	Description
`SB2006_collection_kernel_coeff_kcc`	`4.44e9`	float	Cloud-cloud collection kernel constant $k_{cc}$ in the Seifert and Beheng (2006) scheme ($m^3 kg^{-2} s^{-1}$). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_collection_kernel_coeff_kcr`	`5.25`	float	Cloud-rain collection kernel constant $k_{cr}$ in the Seifert and Beheng (2006) scheme ($m^3 kg^{-1} s^{-1}$). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_collection_kernel_coeff_krr`	`7.12`	float	Rain-rain collection kernel constant $k_{rr}$ in the Seifert and Beheng (2006) scheme ($m^3 kg^{-1} s^{-1}$). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_collection_kernel_coeff_kapparr`	`60.7`	float	Collection kernel constant $\kappa_{rr}$ in the Seifert and Beheng (2006) scheme ($kg^{-1/3}$). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_cloud_droplets_min_mass`	`4.2e-15`	float	Minimum mass of cloud droplets in the Seifert and Beheng (2006) scheme (kg). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_min_mass`	`2.6e-10`	float	Minimum mass of raindrops in the Seifert and Beheng (2006) scheme (kg). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_max_mass`	`5.0e-6`	float	Maximum mass of raindrops in the Seifert and Beheng (2006) scheme (kg). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_cloud_gamma_distribution_coeff_nu`	`1.0`	float	Gamma distribution coefficient $\nu$ for clouds (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_cloud_gamma_distribution_coeff_mu`	`1`	float	Gamma distribution coefficient $\mu$ for clouds (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_rain_distribution_coeff_nu`	`-0.66666666666667`	float	Gamma distribution coefficient $\nu$ for rain (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_rain_distribution_coeff_mu`	`0.33333333333333`	float	Gamma distribution coefficient $\mu$ for rain (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_reference_air_density`	`1.225`	float	Reference air density at surface conditions (kg m⁻³). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_autoconversion_correcting_function_coeff_A`	`400.0`	float	Coefficient $A$ in the universal function correcting the autoconversion rate (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_autoconversion_correcting_function_coeff_a`	`0.7`	float	Coefficient $a$ in the universal function correcting the autoconversion rate (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_autoconversion_correcting_function_coeff_b`	`3`	float	Coefficient $b$ in the universal function correcting the autoconversion rate (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_accretion_correcting_function_coeff_tau0`	`5.0e-5`	float	Coefficient $\tau_0$ in the universal function correcting the accretion rate (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_accretion_correcting_function_coeff_c`	`4`	float	Coefficient $c$ in the universal function correcting the accretion rate (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_self-collection_coeff_d`	`-5`	float	Coefficient $d$ in the raindrops self-collection rate equation (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_equilibrium_mean_diameter`	`0.0009`	float	Equilibrium mean diameter of raindrops for computing the breakup rate (m). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_breakup_mean_diameter_threshold`	`0.00035`	float	Threshold of raindrops mean diameter for breakup (m). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_breakup_coeff_kbr`	`1000`	float	Coefficient $k_{br}$ in the raindrops breakup rate equation (m⁻¹). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_breakup_coeff_kappabr`	`2300`	float	Coefficient $\kappa_{br}$ in the raindrops breakup rate equation (m⁻¹). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_terminal_velocity_coeff_aR`	`9.65`	float	Coefficient $a_R$ in the raindrops terminal velocity equation (m s⁻¹). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_terminal_velocity_coeff_bR`	`10.3`	float	Coefficient $b_R$ in the raindrops terminal velocity equation (m s⁻¹). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_terminal_velocity_coeff_cR`	`600`	float	Coefficient $c_R$ in the raindrops terminal velocity equation (m⁻¹). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_ventilation_factor_coeff_av`	`0.78`	float	Coefficient $a_v$ in the ventilation factor equation for rain evaporation (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_ventilation_factor_coeff_bv`	`0.308`	float	Coefficient $b_v$ in the ventilation factor equation for rain evaporation (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_rain_evaporation_coeff_alpha`	`159`	float	Coefficient $\alpha$ in the fallspeed relation for rain evaporation (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_rain_evaporation_coeff_beta`	`0.266`	float	Coefficient $\beta$ in the fallspeed relation for rain evaporation (unitless). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_size_distribution_coeff_N0_min`	`250000.0`	float	Minimum value of the raindrops size distribution parameter $N_0$ (m⁻⁴). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_size_distribution_coeff_N0_max`	`2.0e7`	float	Maximum value of the raindrops size distribution parameter $N_0$ (m⁻⁴). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_size_distribution_coeff_lambda_min`	`1000.0`	float	Minimum value of the raindrops size distribution parameter $\lambda$ (m⁻¹). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`SB2006_raindrops_size_distribution_coeff_lambda_max`	`10000.0`	float	Maximum value of the raindrops size distribution parameter $\lambda$ (m⁻¹). Source: Seifert and Beheng (2006), DOI: 10.1007/s00703-005-0112-4.
`Horn2012_number_concentration_adjustment_timescale`	`100`	float	Timescale for 2-moment number concentration adjustment (s). Source: Horn (2012), DOI: 10.5194/gmd-5-345-2012.

Name	Value	Type	Description
`Chen2022_table_B1_q_coeff`	`0.115231`	float	Coefficient $q$ for raindrop terminal velocity parameterization (unitless). Source: Chen et al. (2022), Table B1, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B1_ai`	`[0.044612, -0.263166, 4.7178]`	float	Coefficients $a_i$ for raindrop terminal velocity parameterization ($mm^{-b_i}$). Source: Chen et al. (2022), Table B1, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B1_a3_pow_coeff`	`-0.47335`	float	Power coefficient for $a_3$ in raindrop terminal velocity parameterization (unitless). Source: Chen et al. (2022), Table B1, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B1_bi`	`[2.2955, 2.2955, 1.1451]`	float	Coefficients $b_i$ for raindrop terminal velocity parameterization (unitless). Source: Chen et al. (2022), Table B1, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B1_b_rho_coeff`	`0.038465`	float	Density coefficient $b_{\rho}$ for raindrop terminal velocity parameterization (m³ kg⁻¹). Source: Chen et al. (2022), Table B1, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B1_ci`	`[0.0, 0.184325, 0.184325]`	float	Coefficients $c_i$ for raindrop terminal velocity parameterization (mm⁻¹). Source: Chen et al. (2022), Table B1, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B3_As`	`[-0.263503, 0.00174079, 0.0378769]`	float	Coefficients $A_s$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B3, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B3_Bs`	`[0.575231, 0.0909307, 0.515579]`	float	Coefficients $B_s$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B3, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B3_Cs`	`[-0.345387, 0.177362, -0.000427794, 0.00419647]`	float	Coefficients $C_s$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B3, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B3_Es`	`[-0.156593, 0.0189334, 0.1377817]`	float	Coefficients $E_s$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B3, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B3_Fs`	`[-3.35641, 0.0156199, 0.765337]`	float	Coefficients $F_s$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B3, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B3_Gs`	`[-0.0309715, 1.55054, 0.518349]`	float	Coefficients $G_s$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B3, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B5_Al`	`[-0.475897, -0.0023127, 1.12293]`	float	Coefficients $A_l$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B5, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B5_Bl`	`[-2.56289, -0.00513504, 0.608459]`	float	Coefficients $B_l$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B5, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B5_Cl`	`[-0.756064, 0.935922, -1.70952]`	float	Coefficients $C_l$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B5, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B5_El`	`[0.00639847, 0.00906454, -0.108232]`	float	Coefficients $E_l$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B5, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B5_Fl`	`[0.515453, -0.0725042, -1.8681e19]`	float	Coefficients $F_l$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B5, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B5_Gl`	`[2.65236, 0.00158269, 259.935]`	float	Coefficients $G_l$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B5, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_table_B5_Hl`	`[-0.346044, -7.17829e-11, -1.24394e20]`	float	Coefficients $H_l$ for ice terminal velocity parameterization. Source: Chen et al. (2022), Table B5, DOI: 10.1016/j.atmosres.2022.106171.
`Chen2022_ice_cutoff`	`0.000625`	float	Cutoff diameter between small and large ice particles in the Chen et al. (2022) parameterization (m). Source: Chen et al. (2022), DOI: 10.1016/j.atmosres.2022.106171.

Name	Value	Type	Description
`Mohler2006_maximum_allowed_Si`	`1.35`	float	Maximum allowed supersaturation over ice, $S_{i,max}$ (unitless). Source: Möhler et al. (2006), DOI: 10.5194/acp-6-3007-2006.
`Mohler2006_threshold_T`	`220`	float	Threshold temperature, $T_{thr}$, separating two deposition regimes (K). Source: Möhler et al. (2006), DOI: 10.5194/acp-6-3007-2006.
`Mohler2006_S0_warm_ArizonaTestDust`	`1.03`	float	Onset saturation ratio $S_0$ for temperatures > $T_{thr}$ for Arizona Test Dust (unitless). Source: Möhler et al. (2006), DOI: 10.5194/acp-6-3007-2006.
`Mohler2006_S0_cold_ArizonaTestDust`	`1.07`	float	Onset saturation ratio $S_0$ for temperatures < $T_{thr}$ for Arizona Test Dust (unitless). Source: Möhler et al. (2006), DOI: 10.5194/acp-6-3007-2006.
`Mohler2006_a_warm_ArizonaTestDust`	`4.7`	float	Coefficient $a$ for temperatures > $T_{thr}$ for Arizona Test Dust (unitless). Source: Möhler et al. (2006), DOI: 10.5194/acp-6-3007-2006.
`Mohler2006_a_cold_ArizonaTestDust`	`9.2`	float	Coefficient $a$ for temperatures < $T_{thr}$ for Arizona Test Dust (unitless). Source: Möhler et al. (2006), DOI: 10.5194/acp-6-3007-2006.
`Mohler2006_S0_warm_DesertDust`	`1.17`	float	Onset saturation ratio $S_0$ for temperatures > $T_{thr}$ for Desert Dust (unitless). Source: Möhler et al. (2006), DOI: 10.5194/acp-6-3007-2006.
`Mohler2006_S0_cold_DesertDust`	`1.03`	float	Onset saturation ratio $S_0$ for temperatures < $T_{thr}$ for Desert Dust (unitless). Source: Möhler et al. (2006), DOI: 10.5194/acp-6-3007-2006.
`Mohler2006_a_warm_DesertDust`	`0.43`	float	Coefficient $a$ for temperatures > $T_{thr}$ for Desert Dust (unitless). Source: Möhler et al. (2006), DOI: 10.5194/acp-6-3007-2006.
`Mohler2006_a_cold_DesertDust`	`2.35`	float	Coefficient $a$ for temperatures < $T_{thr}$ for Desert Dust (unitless). Source: Möhler et al. (2006), DOI: 10.5194/acp-6-3007-2006.

Name	Value	Type	Description
`J_ABDINM_m_Dust`	`13.2251`	float	Default empirical coefficient $m$ for the water-activity-based deposition nucleation rate ($J_{het}$) parameterization for dust (unitless).
`J_ABDINM_c_Dust`	`0.7716`	float	Default empirical coefficient $c$ for the water-activity-based deposition nucleation rate ($J_{het}$) parameterization for dust (unitless).
`J_ABDINM_m_Illite`	`13.2251`	float	Empirical coefficient $m$ for the deposition nucleation rate ($J_{het}$) of Illite (unitless).
`J_ABDINM_c_Illite`	`0.7716`	float	Empirical coefficient $c$ for the deposition nucleation rate ($J_{het}$) of Illite (unitless).
`J_ABDINM_m_SaharanDust`	`13.2251`	float	Empirical coefficient $m$ for the deposition nucleation rate ($J_{het}$) of Saharan Dust (unitless).
`J_ABDINM_c_SaharanDust`	`0.7716`	float	Empirical coefficient $c$ for the deposition nucleation rate ($J_{het}$) of Saharan Dust (unitless).
`J_ABDINM_m_AsianDust`	`13.2251`	float	Empirical coefficient $m$ for the deposition nucleation rate ($J_{het}$) of Asian Dust (unitless).
`J_ABDINM_c_AsianDust`	`0.7716`	float	Empirical coefficient $c$ for the deposition nucleation rate ($J_{het}$) of Asian Dust (unitless).
`J_ABDINM_m_ArizonaTestDust`	`13.2251`	float	Empirical coefficient $m$ for the deposition nucleation rate ($J_{het}$) of Arizona Test Dust (unitless).
`J_ABDINM_c_ArizonaTestDust`	`0.7716`	float	Empirical coefficient $c$ for the deposition nucleation rate ($J_{het}$) of Arizona Test Dust (unitless).
`Alpert2022_J_deposition_m_Feldspar`	`13.2251`	float	Coefficient $m$ for deposition nucleation rate $J_{het}$ of Feldspar (unitless). Source: Alpert et al. (2022), DOI: 10.1039/D1EA00077B.
`Alpert2022_J_deposition_c_Feldspar`	`0.7716`	float	Coefficient $c$ for deposition nucleation rate $J_{het}$ of Feldspar (unitless). Source: Alpert et al. (2022), DOI: 10.1039/D1EA00077B.
`Alpert2022_J_deposition_m_Ferrihydrite`	`12.3525`	float	Coefficient $m$ for deposition nucleation rate $J_{het}$ of Ferrihydrite (unitless). Source: Alpert et al. (2022), DOI: 10.1039/D1EA00077B.
`Alpert2022_J_deposition_c_Ferrihydrite`	`0.0516`	float	Coefficient $c$ for deposition nucleation rate $J_{het}$ of Ferrihydrite (unitless). Source: Alpert et al. (2022), DOI: 10.1039/D1EA00077B.
`China2017_J_deposition_m_Kaolinite`	`27.551`	float	Coefficient $m$ for deposition nucleation rate $J_{het}$ of Kaolinite (unitless). Source: China et al. (2017), DOI: 10.1002/2016JD025817.
`China2017_J_deposition_c_Kaolinite`	`-2.2209`	float	Coefficient $c$ for deposition nucleation rate $J_{het}$ of Kaolinite (unitless). Source: China et al. (2017), DOI: 10.1002/2016JD025817.

Name	Value	Type	Description
`J_ABIFM_m_Dust`	`22.62`	float	Default empirical coefficient $m$ for the water-activity-based immersion freezing rate ($J_{het}$) parameterization for dust (unitless).
`J_ABIFM_c_Dust`	`-1.35`	float	Default empirical coefficient $c$ for the water-activity-based immersion freezing rate ($J_{het}$) parameterization for dust (unitless).
`J_ABIFM_m_ArizonaTestDust`	`22.62`	float	Empirical coefficient $m$ for the immersion freezing rate ($J_{het}$) of Arizona Test Dust (unitless).
`J_ABIFM_c_ArizonaTestDust`	`-1.35`	float	Empirical coefficient $c$ for the immersion freezing rate ($J_{het}$) of Arizona Test Dust (unitless).
`J_ABIFM_m_SaharanDust`	`22.62`	float	Empirical coefficient $m$ for the immersion freezing rate ($J_{het}$) of Saharan Dust (unitless).
`J_ABIFM_c_SaharanDust`	`-1.35`	float	Empirical coefficient $c$ for the immersion freezing rate ($J_{het}$) of Saharan Dust (unitless).
`J_ABIFM_m_AsianDust`	`22.62`	float	Empirical coefficient $m$ for the immersion freezing rate ($J_{het}$) of Asian Dust (unitless).
`J_ABIFM_c_AsianDust`	`-1.35`	float	Empirical coefficient $c$ for the immersion freezing rate ($J_{het}$) of Asian Dust (unitless).
`J_ABIFM_m_MiddleEasternDust`	`22.62`	float	Empirical coefficient $m$ for the immersion freezing rate ($J_{het}$) of Middle Eastern Dust (unitless).
`J_ABIFM_c_MiddleEasternDust`	`-1.35`	float	Empirical coefficient $c$ for the immersion freezing rate ($J_{het}$) of Middle Eastern Dust (unitless).
`AlpertKnopf2016_J_ABIFM_m_DesertDust`	`22.62`	float	Coefficient $m$ for immersion freezing rate $J_{het}$ of Desert Dust (unitless). Source: Alpert and Knopf (2016), DOI: 10.5194/acp-16-2083-2016.
`AlpertKnopf2016_J_ABIFM_c_DesertDust`	`-1.35`	float	Coefficient $c$ for immersion freezing rate $J_{het}$ of Desert Dust (unitless). Source: Alpert and Knopf (2016), DOI: 10.5194/acp-16-2083-2016.
`KnopfAlpert2013_J_ABIFM_m_Kaolinite`	`54.58834`	float	Coefficient $m$ for immersion freezing rate $J_{het}$ of Kaolinite (unitless). Source: Knopf and Alpert (2013), DOI: 10.1039/C3FD00035D.
`KnopfAlpert2013_J_ABIFM_c_Kaolinite`	`-10.54758`	float	Coefficient $c$ for immersion freezing rate $J_{het}$ of Kaolinite (unitless). Source: Knopf and Alpert (2013), DOI: 10.1039/C3FD00035D.
`KnopfAlpert2013_J_ABIFM_m_Illite`	`54.48075`	float	Coefficient $m$ for immersion freezing rate $J_{het}$ of Illite (unitless). Source: Knopf and Alpert (2013), DOI: 10.1039/C3FD00035D.
`KnopfAlpert2013_J_ABIFM_c_Illite`	`-10.66873`	float	Coefficient $c$ for immersion freezing rate $J_{het}$ of Illite (unitless). Source: Knopf and Alpert (2013), DOI: 10.1039/C3FD00035D.

Name	Value	Type	Description
`Frostenberg2023_standard_deviation`	`1.37`	float	Standard deviation of the log of the ice-nucleating particle concentration (unitless). Source: Frostenberg et al. (2023), Eq. (1), DOI: 10.5194/acp-23-10883-2023.
`Frostenberg2023_a_coefficient`	`1`	float	Coefficient $a$ for the ice-nucleating particle concentration (m³). Source: Frostenberg et al. (2023), Eq. (1), DOI: 10.5194/acp-23-10883-2023.
`Frostenberg2023_b_coefficient`	`1`	float	Coefficient $b$ for the ice-nucleating particle concentration (°C⁻¹). Source: Frostenberg et al. (2023), Eq. (1), DOI: 10.5194/acp-23-10883-2023.

Name	Value	Type	Description
`Koop2000_min_delta_aw`	`0.26`	float	Minimum valid water activity difference $\Delta a_w$ for the Koop et al. (2000) homogeneous nucleation parameterization (unitless). Source: Koop et al. (2000), DOI: 10.1038/35020537.
`Koop2000_max_delta_aw`	`0.34`	float	Maximum valid water activity difference $\Delta a_w$ for the Koop et al. (2000) homogeneous nucleation parameterization (unitless). Source: Koop et al. (2000), DOI: 10.1038/35020537.
`Koop2000_J_hom_coeff1`	`-906.7`	float	Coefficient for calculating the homogeneous nucleation rate $J_{hom}$ (unitless). Source: Koop et al. (2000), DOI: 10.1038/35020537.
`Koop2000_J_hom_coeff2`	`8502`	float	Coefficient for calculating the homogeneous nucleation rate $J_{hom}$ (unitless). Source: Koop et al. (2000), DOI: 10.1038/35020537.
`Koop2000_J_hom_coeff3`	`26924`	float	Coefficient for calculating the homogeneous nucleation rate $J_{hom}$ (unitless). Source: Koop et al. (2000), DOI: 10.1038/35020537.
`Koop2000_J_hom_coeff4`	`29180`	float	Coefficient for calculating the homogeneous nucleation rate $J_{hom}$ (unitless). Source: Koop et al. (2000), DOI: 10.1038/35020537.
`Linear_J_hom_coeff1`	`-68.5532830403637`	float	Intercept coefficient for a linear fit to the Koop et al. (2000) $J_{hom}$ parameterization (unitless). Source: Koop et al. (2000), DOI: 10.1038/35020537.
`Linear_J_hom_coeff2`	`255.9271249999972`	float	Slope coefficient for a linear fit to the Koop et al. (2000) $J_{hom}$ parameterization (unitless). Source: Koop et al. (2000), DOI: 10.1038/35020537.

Name	Value	Type	Description
`p_over_sulphuric_acid_solution_T_max`	`235`	float	Maximum valid temperature for the H₂SO₄ solution vapor pressure parameterization (K). Source: Luo et al. (1995), DOI: 10.1029/94GL02988.
`p_over_sulphuric_acid_solution_T_min`	`185`	float	Minimum valid temperature for the H₂SO₄ solution vapor pressure parameterization (K). Source: Luo et al. (1995), DOI: 10.1029/94GL02988.
`p_over_sulphuric_acid_solution_w_2`	`1.4408`	float	Coefficient for the H₂SO₄ solution vapor pressure parameterization (unitless). Source: Luo et al. (1995), DOI: 10.1029/94GL02988.
`p_over_sulphuric_acid_solution_c1`	`23.306`	float	Coefficient $c_1$ for the H₂SO₄ solution vapor pressure parameterization (unitless). Source: Luo et al. (1995), DOI: 10.1029/94GL02988.
`p_over_sulphuric_acid_solution_c2`	`5.3465`	float	Coefficient $c_2$ for the H₂SO₄ solution vapor pressure parameterization (unitless). Source: Luo et al. (1995), DOI: 10.1029/94GL02988.
`p_over_sulphuric_acid_solution_c3`	`12`	float	Coefficient $c_3$ for the H₂SO₄ solution vapor pressure parameterization (unitless). Source: Luo et al. (1995), DOI: 10.1029/94GL02988.
`p_over_sulphuric_acid_solution_c4`	`8.19`	float	Coefficient $c_4$ for the H₂SO₄ solution vapor pressure parameterization (unitless). Source: Luo et al. (1995), DOI: 10.1029/94GL02988.
`p_over_sulphuric_acid_solution_c5`	`-5814`	float	Coefficient $c_5$ for the H₂SO₄ solution vapor pressure parameterization (unitless). Source: Luo et al. (1995), DOI: 10.1029/94GL02988.
`p_over_sulphuric_acid_solution_c6`	`928.9`	float	Coefficient $c_6$ for the H₂SO₄ solution vapor pressure parameterization (unitless). Source: Luo et al. (1995), DOI: 10.1029/94GL02988.
`p_over_sulphuric_acid_solution_c7`	`1876.7`	float	Coefficient $c_7$ for the H₂SO₄ solution vapor pressure parameterization (unitless). Source: Luo et al. (1995), DOI: 10.1029/94GL02988.

Name	Value	Type	Description
`Thompson2004_c1_Cooper`	`0.005`	float	Coefficient $c_1$ for calculating P3 deposition nucleation (unitless). Source: Thompson et al. (2004), DOI: 10.1175/1520-0493(2004)132<0519:EFOWPU>2.0.CO;2.
`Thompson2004_c2_Cooper`	`0.304`	float	Coefficient $c_2$ for calculating P3 deposition nucleation (unitless). Source: Thompson et al. (2004), DOI: 10.1175/1520-0493(2004)132<0519:EFOWPU>2.0.CO;2.
`BarklieGokhale1959_a_parameter`	`0.65`	float	Mean of parameter $a$ for determining P3 heterogeneous freezing (K⁻¹). Source: Barklie and Gokhale (1959), see Pruppacher and Klett (1997), p. 350.
`BarklieGokhale1959_B_parameter`	`200`	float	Parameter $B$ for rainwater, used to determine P3 heterogeneous freezing (m⁻³ s⁻¹). Source: Barklie and Gokhale (1959), see Pruppacher and Klett (1997), p. 350.