DryDepositionGas
Wesley (1989) gas-phase dry deposition model. Computes dry deposition velocities v_* [m/s] and rates k_* [1/s] for 132 atmospheric trace gas species. Each species is characterized by its GasData (Dh2oPerDx, Hstar, Fo) constants from Wesely (1989) Table 2 and extended GEOS-Chem species data. The deposition velocity v_i = ifelse(lev==1,1,0) / (Ra + Rb_i + Rc_i) where Ra is the aerodynamic resistance (shared), Rb_i = 5*Sc_i^(2/3)/u_star is the quasi-laminar sublayer resistance, and Rc_i is the Wesley (1989) surface resistance computed inline with species constants substituted. Rain and dew are hardcoded false in the upstream DryDepositionGas builder. Migrated from AtmosphericDeposition.jl@e4468c79 src/dry_deposition.jl:323.
Description
Wesley (1989) gas-phase dry deposition model. Computes dry deposition velocities v_* [m/s] and rates k_* [1/s] for 132 atmospheric trace gas species. Each species is characterized by its GasData (Dh2oPerDx, Hstar, Fo) constants from Wesely (1989) Table 2 and extended GEOS-Chem species data. The deposition velocity v_i = ifelse(lev==1,1,0) / (Ra + Rb_i + Rc_i) where Ra is the aerodynamic resistance (shared), Rb_i = 5*Sc_i^(2/3)/u_star is the quasi-laminar sublayer resistance, and Rc_i is the Wesley (1989) surface resistance computed inline with species constants substituted. Rain and dew are hardcoded false in the upstream DryDepositionGas builder. Migrated from AtmosphericDeposition.jl@e4468c79 src/dry_deposition.jl:323.
Reference
Wesely, M. L. (1989). Parameterization of surface resistances to gaseous dry deposition in regional-scale numerical models. Atmospheric Environment 23(6), 1293-1304. doi:10.1016/0004-6981(89)90153-4
_source_ref: AtmosphericDeposition.jl@e4468c79c8dd4aae88646cd16d6bcf290874742c:src/dry_deposition.jl:323
Upstream DryDepositionGas is an MTK builder that declares 12 scalar @parameters (season, landuse, z, del_P, z_0, u_star, L, rho_A, G, Ts, theta, lev) and builds equations depvel .~ DryDepGas.(…) and deprate .~ depvel .* g .* rho_A ./ del_P for 132 gas species. The species GasData (Dh2oPerDx, Hstar, Fo) are constants from src/wesley1989.jl. rain=false and dew=false are hardcoded in the builder.
For each species i, DryDepGas computes: v_i = ifelse(lev==1,1,0) / (Ra + Rb_i + Rc_i) Ra = ra(z, z0, u_star, L) [aerodynamic resistance, shared] Rb_i = 5 * Sc_i^(2/3) / u_star [quasi-laminar, Seinfeld & Pandis Eq. 19.17] Sc_i = mu(Ts) / (rho_A * dH2O(Ts) / Dh2oPerDx_i) [Schmidt number] Rc_i = WesleySurfaceResistance(GasData_i, G, Ts-273, theta, season, landuse, false, false, isSO2_i, isO3_i)
Migration approach: Ra, mu_air, Dh2o, and the 7 Wesley table lookups plus rs, rdc, correction are computed as shared observed variables. For each species, species-specific parts (Rb, Rc) are inlined into the v_* expression with GasData constants substituted. Since rain=false and dew=false, rlux=rlux_dry for all species and the rs rain/dew multiplier=1.
SO2 (species 131): isSO2=true → rclx=r_clS_val, rgsx=r_gsS_val. O3 (species 114): isO3=true → rclx=r_clO_val, rgsx=r_gsO_val. All other species: rclx=1/(Hstar/(1e5r_clS)+Fo/r_clO), rgsx=1/(Hstar/(1e5r_gsS)+Fo/r_gsO).
Temperature convention: Ts parameter is in Kelvin (default 298K). mu_air and Dh2o use Ts directly (Kelvin). Wesley surface resistance uses Ts_c = Ts - 273 (Celsius), consistent with the upstream (Ts * T_unitless - 273) conversion in DryDepGas.
Neutral-stability: L=0 is the neutral-stability sentinel. zeta and zeta_0 are reformulated as zL/(L^2+1e-300) and z0L/(L^2+1e-300) to avoid division by zero, per dry_aerosol.esm convention.
Tolerance (model-level rel=1e-6): closed-form algebraic system; interp.linear table lookups land on integer knots (zero blend weight), subsequent arithmetic accumulates ~1e-13 float64 round-off. rel=1e-6 provides comfortable headroom._
Parameters
| Name | Units | Default | Description |
|---|---|---|---|
season | 1 | 1 | Wesley (1989) season index (1=midsummer, 2=autumn, 3=late autumn, 4=winter, 5=transitional). Upstream parameter season, default wesleyMidsummer=1. |
landuse | 1 | 1 | Wesley (1989) land-use index (1=urban, 2=agricultural, 3=range, 4=deciduous, 5=coniferous, 6=mixed forest, 7=water, 8=barren, 9=wetland, 10=range/ag, 11=rocky shrubs). Upstream parameter landuse, default wesleyUrban=1. |
z | m | 60.0 | Height from ground to mid-point of level 1 [m]. |
del_P | Pa | 1520.0 | Pressure thickness of atmospheric level 1 [Pa]. |
z0 | m | 0.04 | Surface roughness length [m]. Upstream z_0. |
u_star | m/s | 0.44 | Friction velocity [m/s]. |
L | m | 0.0 | Monin-Obukhov length [m]. L=0 is the neutral-stability sentinel. |
rho_A | kg/m^3 | 1.2 | Air density [kg/m^3]. Upstream rho_A. |
G | W/m^2 | 300.0 | Solar irradiation [W/m^2]. |
Ts | K | 298.0 | Surface air temperature [K]. Converted to Celsius (Ts_c = Ts - 273) for Wesley surface resistance. |
theta | 1 | 0.0 | Slope of the local terrain [radians]. Upstream theta. |
lev | 1 | 1 | Atmospheric level index. Deposition is active only when lev==1. |
g_const | m/s^2 | 9.81 | Gravitational acceleration [m/s^2]. Upstream @constants g. |
kappa | 1 | 0.4 | Von Karman constant. Upstream @constants kappa. |
Observed
| Name | Units | Default | Description |
|---|---|---|---|
Ts_c | degC | Surface temperature in Celsius, Ts_c = Ts - 273. Passed to WesleySurfaceResistance (which uses Celsius). | |
L2_eps | m^2 | L^2 + 1e-300 denominator used to regularize division by L at neutral stability. | |
zeta | 1 | Monin-Obukhov stability parameter z/L (regularized to avoid division by zero at L=0). | |
zeta_0 | 1 | Monin-Obukhov stability parameter z0/L (regularized). | |
ra_neutral_stable | s/m | Aerodynamic resistance for neutral/stable conditions (zeta >= 0). Stable: adds 4.7*(zeta-zeta_0) term. | |
i_unstable | 1 | Guard flag: 1 when zeta<0 (unstable), 0 otherwise. Prevents domain error in eta calculation. | |
eta_0 | 1 | Stability correction factor eta_0 = (1 - 15zeta_0i_unstable)^(1/4) for unstable regime. | |
eta | 1 | Stability correction factor eta = (1 - 15zetai_unstable)^(1/4) for unstable regime. | |
Ra | s/m | Aerodynamic resistance Ra [s/m] (Seinfeld & Pandis 2006 Eq. 19.13-19.14). Three stability regimes: unstable (zeta<0), neutral (zeta=0), stable (zeta>0). | |
mu_air | kg/(m*s) | Dynamic viscosity of air [kg/(m*s)] (mu(Ts), Ts in Kelvin). | |
Dh2o | m^2/s | Molecular diffusivity of water vapor in air [m^2/s] (dH2O(Ts), Ts in Kelvin). | |
table_index | 1 | 1-D table index into the 5x11 Wesley (1989) resistance tables, column-major flattened: (iLandUse-1)*5 + iSeason. | |
r_i_val | s/m | Wesley (1989) minimum stomatal resistance r_i [s/m] for the current season/land-use, looked up from the 5x11 r_i table (column-major, axis [1..55]) at table_index. | |
r_lu_val | s/m | Wesley (1989) cuticle resistance r_lu [s/m] for the current season/land-use. | |
r_ac_val | s/m | Wesley (1989) lower-canopy/ground aerodynamic resistance r_ac [s/m]. | |
r_gsS_val | s/m | Wesley (1989) SO2 ground/soil resistance r_gsS [s/m]. | |
r_gsO_val | s/m | Wesley (1989) O3 ground/soil resistance r_gsO [s/m]. | |
r_clS_val | s/m | Wesley (1989) SO2 lower-canopy resistance r_clS [s/m]. | |
r_clO_val | s/m | Wesley (1989) O3 lower-canopy resistance r_clO [s/m]. | |
rs | s/m | Stomatal resistance rs [s/m] (Wesley 1989 Eq. 3), the wesely_stomatal_resistance template of wesley1989/resistance_templates.esm applied to Ts_c (Celsius). With rain=dew=false the wet-surface multiplier=1. Capped at 1e25 s/m when Ts_c <= 0.1 degC. | |
rdc | s/m | Lower-canopy aerodynamic resistance rdc [s/m] (Wesley 1989). Independent of species. | |
correction | s/m | Cold-temperature correction for all surface resistances: 1000 s/m * exp(-Ts_c/(1 degC) - 4) when Ts_c < 0 degC, else 0. Defined by the wesely_cold_correction template of wesley1989/resistance_templates.esm. | |
v_NO | m/s | NO dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.3, Hstar=0.003, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_NO | 1/s | NO dry deposition rate [1/s] = v_NO * g * rho_A / del_P. | |
v_Ald | m/s | Acetaldehyde (aldehyde class) dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=15.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_Ald | 1/s | Ald dry deposition rate [1/s] = v_Ald * g * rho_A / del_P. | |
v_HCHO | m/s | Formaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.3, Hstar=6000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HCHO | 1/s | HCHO dry deposition rate [1/s] = v_HCHO * g * rho_A / del_P. | |
v_OP | m/s | Methyl hydroperoxide (organic peroxide class) dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=240.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_OP | 1/s | OP dry deposition rate [1/s] = v_OP * g * rho_A / del_P. | |
v_PAA | m/s | Peroxyacetyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.0, Hstar=540.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_PAA | 1/s | PAA dry deposition rate [1/s] = v_PAA * g * rho_A / del_P. | |
v_ORA | m/s | Formic acid (organic acid class) dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=4000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ORA | 1/s | ORA dry deposition rate [1/s] = v_ORA * g * rho_A / del_P. | |
v_NH3 | m/s | NH3 dry deposition velocity [m/s]. GasData: Dh2oPerDx=0.97, Hstar=20000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_NH3 | 1/s | NH3 dry deposition rate [1/s] = v_NH3 * g * rho_A / del_P. | |
v_HNO2 | m/s | Nitrous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=100000.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HNO2 | 1/s | HNO2 dry deposition rate [1/s] = v_HNO2 * g * rho_A / del_P. | |
v_ACET | m/s | Acetone dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.795685104, Hstar=100000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ACET | 1/s | ACET dry deposition rate [1/s] = v_ACET * g * rho_A / del_P. | |
v_ACTA | m/s | Acetic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.825879681, Hstar=4100.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ACTA | 1/s | ACTA dry deposition rate [1/s] = v_ACTA * g * rho_A / del_P. | |
v_ALD2 | m/s | Acetaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.563873924, Hstar=11.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ALD2 | 1/s | ALD2 dry deposition rate [1/s] = v_ALD2 * g * rho_A / del_P. | |
v_AROMP4 | m/s | Generic C4 product of aromatics dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.943968688, Hstar=410000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_AROMP4 | 1/s | AROMP4 dry deposition rate [1/s] = v_AROMP4 * g * rho_A / del_P. | |
v_AROMP5 | m/s | C5 unsaturated dicarbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.333533261, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_AROMP5 | 1/s | AROMP5 dry deposition rate [1/s] = v_AROMP5 * g * rho_A / del_P. | |
v_ATOOH | m/s | ATO2 peroxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.236236775, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ATOOH | 1/s | ATOOH dry deposition rate [1/s] = v_ATOOH * g * rho_A / del_P. | |
v_BALD | m/s | Benzaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427046586, Hstar=38.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_BALD | 1/s | BALD dry deposition rate [1/s] = v_BALD * g * rho_A / del_P. | |
v_BENZP | m/s | Phenyl hydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.472252775, Hstar=2900.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_BENZP | 1/s | BENZP dry deposition rate [1/s] = v_BENZP * g * rho_A / del_P. | |
v_Br2 | m/s | Molecular Bromine dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.978296144, Hstar=0.76, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_Br2 | 1/s | Br2 dry deposition rate [1/s] = v_Br2 * g * rho_A / del_P. | |
v_BrCl | m/s | Bromine chloride dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.531491424, Hstar=0.97, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_BrCl | 1/s | BrCl dry deposition rate [1/s] = v_BrCl * g * rho_A / del_P. | |
v_BrNO3 | m/s | Bromine nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.806635356, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_BrNO3 | 1/s | BrNO3 dry deposition rate [1/s] = v_BrNO3 * g * rho_A / del_P. | |
v_BZCO3H | m/s | Perbenzoic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.768903222, Hstar=24000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_BZCO3H | 1/s | BZCO3H dry deposition rate [1/s] = v_BZCO3H * g * rho_A / del_P. | |
v_BZPAN | m/s | Peroxybenzoylnitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.188213391, Hstar=70.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_BZPAN | 1/s | BZPAN dry deposition rate [1/s] = v_BZPAN * g * rho_A / del_P. | |
v_CH2O | m/s | Formaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.291091904, Hstar=3000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_CH2O | 1/s | CH2O dry deposition rate [1/s] = v_CH2O * g * rho_A / del_P. | |
v_Cl2 | m/s | Molecular chlorine dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.983821576, Hstar=0.092, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_Cl2 | 1/s | Cl2 dry deposition rate [1/s] = v_Cl2 * g * rho_A / del_P. | |
v_ClNO2 | m/s | Nitryl chloride dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.126302433, Hstar=0.045, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ClNO2 | 1/s | ClNO2 dry deposition rate [1/s] = v_ClNO2 * g * rho_A / del_P. | |
v_ClNO3 | m/s | Chlorine nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.325789543, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ClNO3 | 1/s | ClNO3 dry deposition rate [1/s] = v_ClNO3 * g * rho_A / del_P. | |
v_ClO | m/s | Chlorine monoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.689943485, Hstar=0.7, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ClO | 1/s | ClO dry deposition rate [1/s] = v_ClO * g * rho_A / del_P. | |
v_ClOO | m/s | Chlorine dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.934953215, Hstar=1.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ClOO | 1/s | ClOO dry deposition rate [1/s] = v_ClOO * g * rho_A / del_P. | |
v_CSL | m/s | Cresols dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.450037177, Hstar=420.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_CSL | 1/s | CSL dry deposition rate [1/s] = v_CSL * g * rho_A / del_P. | |
v_EOH | m/s | Ethanol dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.599147774, Hstar=190.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_EOH | 1/s | EOH dry deposition rate [1/s] = v_EOH * g * rho_A / del_P. | |
v_ETHLN | m/s | Ethanol nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.414894654, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ETHLN | 1/s | ETHLN dry deposition rate [1/s] = v_ETHLN * g * rho_A / del_P. | |
v_ETHN | m/s | hydroxy-nitrooxy-ethane dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.437885999, Hstar=39000.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ETHN | 1/s | ETHN dry deposition rate [1/s] = v_ETHN * g * rho_A / del_P. | |
v_ETHP | m/s | hydroxy-hydroperoxy-ethane dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.081716485, Hstar=650000.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ETHP | 1/s | ETHP dry deposition rate [1/s] = v_ETHP * g * rho_A / del_P. | |
v_ETNO3 | m/s | Ethyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.248490219, Hstar=1.6, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ETNO3 | 1/s | ETNO3 dry deposition rate [1/s] = v_ETNO3 * g * rho_A / del_P. | |
v_ETP | m/s | Ethylhydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.856330695, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ETP | 1/s | ETP dry deposition rate [1/s] = v_ETP * g * rho_A / del_P. | |
v_GLYC | m/s | Glycoaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.825879681, Hstar=41000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_GLYC | 1/s | GLYC dry deposition rate [1/s] = v_GLYC * g * rho_A / del_P. | |
v_GLYX | m/s | Glyoxal dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.794912135, Hstar=360000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_GLYX | 1/s | GLYX dry deposition rate [1/s] = v_GLYX * g * rho_A / del_P. | |
v_H2O2 | m/s | Hydrogen peroxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.374189565, Hstar=50000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_H2O2 | 1/s | H2O2 dry deposition rate [1/s] = v_H2O2 * g * rho_A / del_P. | |
v_HAC | m/s | Hydroxyacetone dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.027822692, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HAC | 1/s | HAC dry deposition rate [1/s] = v_HAC * g * rho_A / del_P. | |
v_HBr | m/s | Hypobromic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.119242195, Hstar=7100000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HBr | 1/s | HBr dry deposition rate [1/s] = v_HBr * g * rho_A / del_P. | |
v_HC5A | m/s | isoprene-4,1-hydroxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.357553733, Hstar=7800.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HC5A | 1/s | HC5A dry deposition rate [1/s] = v_HC5A * g * rho_A / del_P. | |
v_HCl | m/s | Hydrochloric acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.422421336, Hstar=20000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HCl | 1/s | HCl dry deposition rate [1/s] = v_HCl * g * rho_A / del_P. | |
v_HCOOH | m/s | Formic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.598453398, Hstar=8900.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HCOOH | 1/s | HCOOH dry deposition rate [1/s] = v_HCOOH * g * rho_A / del_P. | |
v_HI | m/s | Hydrogen iodide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.664598268, Hstar=2.35e+16, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HI | 1/s | HI dry deposition rate [1/s] = v_HI * g * rho_A / del_P. | |
v_HMHP | m/s | Hydroxymethyl hydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.885554366, Hstar=1300000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HMHP | 1/s | HMHP dry deposition rate [1/s] = v_HMHP * g * rho_A / del_P. | |
v_HMML | m/s | hydroxymethyl-methyl-a-lactone dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=120000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HMML | 1/s | HMML dry deposition rate [1/s] = v_HMML * g * rho_A / del_P. | |
v_HNO3 | m/s | Nitric acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.870183545, Hstar=100000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HNO3 | 1/s | HNO3 dry deposition rate [1/s] = v_HNO3 * g * rho_A / del_P. | |
v_HOBr | m/s | Hypobromous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.319336638, Hstar=1300.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HOBr | 1/s | HOBr dry deposition rate [1/s] = v_HOBr * g * rho_A / del_P. | |
v_HOCl | m/s | Hypochlorous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.706287613, Hstar=650.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HOCl | 1/s | HOCl dry deposition rate [1/s] = v_HOCl * g * rho_A / del_P. | |
v_HOI | m/s | Hypoiodous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.826147328, Hstar=15400.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HOI | 1/s | HOI dry deposition rate [1/s] = v_HOI * g * rho_A / del_P. | |
v_HONIT | m/s | 2nd gen monoterpene organic nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.454607581, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HONIT | 1/s | HONIT dry deposition rate [1/s] = v_HONIT * g * rho_A / del_P. | |
v_HPALD1 | m/s | d-4,1-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HPALD1 | 1/s | HPALD1 dry deposition rate [1/s] = v_HPALD1 * g * rho_A / del_P. | |
v_HPALD2 | m/s | d-1,4-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HPALD2 | 1/s | HPALD2 dry deposition rate [1/s] = v_HPALD2 * g * rho_A / del_P. | |
v_HPALD3 | m/s | b-2,1-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HPALD3 | 1/s | HPALD3 dry deposition rate [1/s] = v_HPALD3 * g * rho_A / del_P. | |
v_HPALD4 | m/s | b-3,4-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HPALD4 | 1/s | HPALD4 dry deposition rate [1/s] = v_HPALD4 * g * rho_A / del_P. | |
v_HPETHNL | m/s | Hydroperoxy ethanal dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.054743675, Hstar=41000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_HPETHNL | 1/s | HPETHNL dry deposition rate [1/s] = v_HPETHNL * g * rho_A / del_P. | |
v_I2 | m/s | Molecular iodine dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.753403898, Hstar=2.7, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_I2 | 1/s | I2 dry deposition rate [1/s] = v_I2 * g * rho_A / del_P. | |
v_I2O2 | m/s | Diiodine dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.983002729, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_I2O2 | 1/s | I2O2 dry deposition rate [1/s] = v_I2O2 * g * rho_A / del_P. | |
v_I2O3 | m/s | Diiodine trioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=4.092975165, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_I2O3 | 1/s | I2O3 dry deposition rate [1/s] = v_I2O3 * g * rho_A / del_P. | |
v_I2O4 | m/s | Diiodine tetraoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=4.200069126, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_I2O4 | 1/s | I2O4 dry deposition rate [1/s] = v_I2O4 * g * rho_A / del_P. | |
v_IBr | m/s | Iodine monobromide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.388907673, Hstar=24.3, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IBr | 1/s | IBr dry deposition rate [1/s] = v_IBr * g * rho_A / del_P. | |
v_ICHE | m/s | Isoprene hydroxy-carbonyl-epoxides dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ICHE | 1/s | ICHE dry deposition rate [1/s] = v_ICHE * g * rho_A / del_P. | |
v_ICl | m/s | Iodine monochloride dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.002889488, Hstar=111.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ICl | 1/s | ICl dry deposition rate [1/s] = v_ICl * g * rho_A / del_P. | |
v_ICN | m/s | Lumped isoprene carbonyl-nitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.838298642, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ICN | 1/s | ICN dry deposition rate [1/s] = v_ICN * g * rho_A / del_P. | |
v_ICPDH | m/s | Isoprene dihydroxy hydroperoxycarbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.886969263, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ICPDH | 1/s | ICPDH dry deposition rate [1/s] = v_ICPDH * g * rho_A / del_P. | |
v_IDC | m/s | Lumped isoprene dicarbonyls dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.333652194, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IDC | 1/s | IDC dry deposition rate [1/s] = v_IDC * g * rho_A / del_P. | |
v_IDCHP | m/s | Isoprene dicarbonyl hydroxy dihydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.867483999, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IDCHP | 1/s | IDCHP dry deposition rate [1/s] = v_IDCHP * g * rho_A / del_P. | |
v_IDHDP | m/s | Isoprene dihydroxy dihydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.055299253, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IDHDP | 1/s | IDHDP dry deposition rate [1/s] = v_IDHDP * g * rho_A / del_P. | |
v_IDHPE | m/s | Isoprene dihydroxy hydroperoxy epoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.886969263, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IDHPE | 1/s | IDHPE dry deposition rate [1/s] = v_IDHPE * g * rho_A / del_P. | |
v_IDN | m/s | Lumped isoprene dinitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.265875962, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IDN | 1/s | IDN dry deposition rate [1/s] = v_IDN * g * rho_A / del_P. | |
v_IEPOXA | m/s | trans-Beta isoprene epoxydiol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427275283, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IEPOXA | 1/s | IEPOXA dry deposition rate [1/s] = v_IEPOXA * g * rho_A / del_P. | |
v_IEPOXB | m/s | cis-Beta isoprene epoxydiol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427275283, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IEPOXB | 1/s | IEPOXB dry deposition rate [1/s] = v_IEPOXB * g * rho_A / del_P. | |
v_IEPOXD | m/s | Delta isoprene epoxydiol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427275283, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IEPOXD | 1/s | IEPOXD dry deposition rate [1/s] = v_IEPOXD * g * rho_A / del_P. | |
v_IHN1 | m/s | Isoprene-d-4,1-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IHN1 | 1/s | IHN1 dry deposition rate [1/s] = v_IHN1 * g * rho_A / del_P. | |
v_IHN2 | m/s | Isoprene-b-1,2-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IHN2 | 1/s | IHN2 dry deposition rate [1/s] = v_IHN2 * g * rho_A / del_P. | |
v_IHN3 | m/s | Isoprene-b-4,3-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IHN3 | 1/s | IHN3 dry deposition rate [1/s] = v_IHN3 * g * rho_A / del_P. | |
v_IHN4 | m/s | Isoprene-d-4,1-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IHN4 | 1/s | IHN4 dry deposition rate [1/s] = v_IHN4 * g * rho_A / del_P. | |
v_INPB | m/s | Lumped b-hydroperoxy isoprene nitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.009352286, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_INPB | 1/s | INPB dry deposition rate [1/s] = v_INPB * g * rho_A / del_P. | |
v_INPD | m/s | Lumped d-hydroperoxy isoprene nitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.009352286, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_INPD | 1/s | INPD dry deposition rate [1/s] = v_INPD * g * rho_A / del_P. | |
v_IONO | m/s | Nitryl iodide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.098058022, Hstar=0.3, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IONO | 1/s | IONO dry deposition rate [1/s] = v_IONO * g * rho_A / del_P. | |
v_IONO2 | m/s | Iodine nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.238224586, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IONO2 | 1/s | IONO2 dry deposition rate [1/s] = v_IONO2 * g * rho_A / del_P. | |
v_IPRNO3 | m/s | Isopropyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.415469232, Hstar=0.79, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_IPRNO3 | 1/s | IPRNO3 dry deposition rate [1/s] = v_IPRNO3 * g * rho_A / del_P. | |
v_ITCN | m/s | lumped isoprene tetrafunctional carbonylnitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.291271958, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ITCN | 1/s | ITCN dry deposition rate [1/s] = v_ITCN * g * rho_A / del_P. | |
v_ITHN | m/s | Lumped isoprene tetrafunctional hydroxynitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.308262103, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_ITHN | 1/s | ITHN dry deposition rate [1/s] = v_ITHN * g * rho_A / del_P. | |
v_LIMO | m/s | Limonene dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.750196241, Hstar=0.07, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_LIMO | 1/s | LIMO dry deposition rate [1/s] = v_LIMO * g * rho_A / del_P. | |
v_LVOC | m/s | Gas-phase low-volatility non-IEPOX product of RIP ox dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.925550478, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_LVOC | 1/s | LVOC dry deposition rate [1/s] = v_LVOC * g * rho_A / del_P. | |
v_MACR | m/s | Methacrolein dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.972597602, Hstar=6.5, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MACR | 1/s | MACR dry deposition rate [1/s] = v_MACR * g * rho_A / del_P. | |
v_MACR1OOH | m/s | Peracid from MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MACR1OOH | 1/s | MACR1OOH dry deposition rate [1/s] = v_MACR1OOH * g * rho_A / del_P. | |
v_MAP | m/s | Peroxyacetic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.054743675, Hstar=840.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MAP | 1/s | MAP dry deposition rate [1/s] = v_MAP * g * rho_A / del_P. | |
v_MCRDH | m/s | Dihydroxy-methacrolein dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.404067025, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MCRDH | 1/s | MCRDH dry deposition rate [1/s] = v_MCRDH * g * rho_A / del_P. | |
v_MCRENOL | m/s | Lumped enols from MVK/MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.186155589, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MCRENOL | 1/s | MCRENOL dry deposition rate [1/s] = v_MCRENOL * g * rho_A / del_P. | |
v_MCRHN | m/s | Nitrate from MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.876953728, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MCRHN | 1/s | MCRHN dry deposition rate [1/s] = v_MCRHN * g * rho_A / del_P. | |
v_MCRHNB | m/s | Nitrate from MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.876953728, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MCRHNB | 1/s | MCRHNB dry deposition rate [1/s] = v_MCRHNB * g * rho_A / del_P. | |
v_MCRHP | m/s | Hydroxy-hydroperoxy-methacrolein dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.582183808, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MCRHP | 1/s | MCRHP dry deposition rate [1/s] = v_MCRHP * g * rho_A / del_P. | |
v_MCT | m/s | Catechols and methyl catechols dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.623555974, Hstar=420.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MCT | 1/s | MCT dry deposition rate [1/s] = v_MCT * g * rho_A / del_P. | |
v_MENO3 | m/s | Methyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.068072755, Hstar=2.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MENO3 | 1/s | MENO3 dry deposition rate [1/s] = v_MENO3 * g * rho_A / del_P. | |
v_MGLY | m/s | Methylglyoxal dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.000123225, Hstar=3700.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MGLY | 1/s | MGLY dry deposition rate [1/s] = v_MGLY * g * rho_A / del_P. | |
v_MOH | m/s | Methanol dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.333808586, Hstar=203.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MOH | 1/s | MOH dry deposition rate [1/s] = v_MOH * g * rho_A / del_P. | |
v_MONITS | m/s | Saturated 1st gen monoterpene organic nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.456856361, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MONITS | 1/s | MONITS dry deposition rate [1/s] = v_MONITS * g * rho_A / del_P. | |
v_MONITU | m/s | Unsaturated 1st gen monoterpene organic nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.456856361, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MONITU | 1/s | MONITU dry deposition rate [1/s] = v_MONITU * g * rho_A / del_P. | |
v_MPAN | m/s | Peroxymethacroyl nitrate (PMN) dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857497296, Hstar=1.72, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MPAN | 1/s | MPAN dry deposition rate [1/s] = v_MPAN * g * rho_A / del_P. | |
v_MTPA | m/s | a-pinene, b-pinene, sabinene, carene dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.750196241, Hstar=0.049, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MTPA | 1/s | MTPA dry deposition rate [1/s] = v_MTPA * g * rho_A / del_P. | |
v_MTPO | m/s | Terpinene, terpinolene, myrcene, ocimene, other monoterpenes dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.750196241, Hstar=0.049, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MTPO | 1/s | MTPO dry deposition rate [1/s] = v_MTPO * g * rho_A / del_P. | |
v_MVK | m/s | Methyl vinyl ketone dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.972456898, Hstar=44.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MVK | 1/s | MVK dry deposition rate [1/s] = v_MVK * g * rho_A / del_P. | |
v_MVKDH | m/s | dihydroxy-MVK dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.415699025, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MVKDH | 1/s | MVKDH dry deposition rate [1/s] = v_MVKDH * g * rho_A / del_P. | |
v_MVKHC | m/s | MVK hydroxy-carbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MVKHC | 1/s | MVKHC dry deposition rate [1/s] = v_MVKHC * g * rho_A / del_P. | |
v_MVKHCB | m/s | MVK hydroxy-carbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MVKHCB | 1/s | MVKHCB dry deposition rate [1/s] = v_MVKHCB * g * rho_A / del_P. | |
v_MVKHP | m/s | MVK hydroxy-hydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.582183808, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MVKHP | 1/s | MVKHP dry deposition rate [1/s] = v_MVKHP * g * rho_A / del_P. | |
v_MVKN | m/s | Nitrate from MVK dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.877050197, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MVKN | 1/s | MVKN dry deposition rate [1/s] = v_MVKN * g * rho_A / del_P. | |
v_MVKPC | m/s | MVK hydroperoxy-carbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560380085, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_MVKPC | 1/s | MVKPC dry deposition rate [1/s] = v_MVKPC * g * rho_A / del_P. | |
v_N2O5 | m/s | Dinitrogen pentoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.44867743, Hstar=100000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_N2O5 | 1/s | N2O5 dry deposition rate [1/s] = v_N2O5 * g * rho_A / del_P. | |
v_NO2 | m/s | Nitrogen dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.598106097, Hstar=0.01, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_NO2 | 1/s | NO2 dry deposition rate [1/s] = v_NO2 * g * rho_A / del_P. | |
v_NPHEN | m/s | Nitrophenols dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.77880881, Hstar=2300.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_NPHEN | 1/s | NPHEN dry deposition rate [1/s] = v_NPHEN * g * rho_A / del_P. | |
v_NPRNO3 | m/s | n-propyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.415469232, Hstar=1.1, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_NPRNO3 | 1/s | NPRNO3 dry deposition rate [1/s] = v_NPRNO3 * g * rho_A / del_P. | |
v_O3 | m/s | Ozone dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.632300488, Hstar=0.01, Fo=1.0. isSO2=False, isO3=True. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_O3 | 1/s | O3 dry deposition rate [1/s] = v_O3 * g * rho_A / del_P. | |
v_PAN | m/s | Peroxyacetyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.592267569, Hstar=3.6, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_PAN | 1/s | PAN dry deposition rate [1/s] = v_PAN * g * rho_A / del_P. | |
v_PHEN | m/s | Phenol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.285585007, Hstar=2800.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_PHEN | 1/s | PHEN dry deposition rate [1/s] = v_PHEN * g * rho_A / del_P. | |
v_PP | m/s | Peroxide from PO2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.261168272, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_PP | 1/s | PP dry deposition rate [1/s] = v_PP * g * rho_A / del_P. | |
v_PPN | m/s | Lumped peroxypropionyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.738262115, Hstar=3.6, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_PPN | 1/s | PPN dry deposition rate [1/s] = v_PPN * g * rho_A / del_P. | |
v_PROPNN | m/s | Propanone nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.570981223, Hstar=500000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_PROPNN | 1/s | PROPNN dry deposition rate [1/s] = v_PROPNN * g * rho_A / del_P. | |
v_PRPN | m/s | Peroxide from PRN1 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.758760869, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_PRPN | 1/s | PRPN dry deposition rate [1/s] = v_PRPN * g * rho_A / del_P. | |
v_PYAC | m/s | Pyruvic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.211024169, Hstar=314000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_PYAC | 1/s | PYAC dry deposition rate [1/s] = v_PYAC * g * rho_A / del_P. | |
v_R4N2 | m/s | Lumped alkyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.571197117, Hstar=17000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_R4N2 | 1/s | R4N2 dry deposition rate [1/s] = v_R4N2 * g * rho_A / del_P. | |
v_R4P | m/s | Peroxide from R4O2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.236857245, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_R4P | 1/s | R4P dry deposition rate [1/s] = v_R4P * g * rho_A / del_P. | |
v_RA3P | m/s | Peroxide from A3O2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.055418934, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_RA3P | 1/s | RA3P dry deposition rate [1/s] = v_RA3P * g * rho_A / del_P. | |
v_RB3P | m/s | Peroxide from B3O2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.055418934, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_RB3P | 1/s | RB3P dry deposition rate [1/s] = v_RB3P * g * rho_A / del_P. | |
v_RIPA | m/s | 1,2-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_RIPA | 1/s | RIPA dry deposition rate [1/s] = v_RIPA * g * rho_A / del_P. | |
v_RIPB | m/s | 4,3-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_RIPB | 1/s | RIPB dry deposition rate [1/s] = v_RIPB * g * rho_A / del_P. | |
v_RIPC | m/s | d-1,4-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_RIPC | 1/s | RIPC dry deposition rate [1/s] = v_RIPC * g * rho_A / del_P. | |
v_RIPD | m/s | d-4,1-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_RIPD | 1/s | RIPD dry deposition rate [1/s] = v_RIPD * g * rho_A / del_P. | |
v_RP | m/s | Peroxide from RCO3 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.236236775, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_RP | 1/s | RP dry deposition rate [1/s] = v_RP * g * rho_A / del_P. | |
v_SO2 | m/s | Sulfur dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.885407166, Hstar=100000.0, Fo=0.0. isSO2=True, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_SO2 | 1/s | SO2 dry deposition rate [1/s] = v_SO2 * g * rho_A / del_P. | |
v_RCOOH | m/s | > C2 organic acids dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.027959554, Hstar=1520.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas). | |
k_RCOOH | 1/s | RCOOH dry deposition rate [1/s] = v_RCOOH * g * rho_A / del_P. |
Observed expressions
$$ Ts_{c} = Ts - 273.0 $$Surface temperature in Celsius, Ts_c = Ts - 273. Passed to WesleySurfaceResistance (which uses Celsius).
$$ L2_{eps} = L \cdot L + 1 \times 10^{-300} $$L^2 + 1e-300 denominator used to regularize division by L at neutral stability.
$$ zeta = \frac{z \cdot L}{L2_{eps}} $$Monin-Obukhov stability parameter z/L (regularized to avoid division by zero at L=0).
$$ zeta_{0} = \frac{z0 \cdot L}{L2_{eps}} $$Monin-Obukhov stability parameter z0/L (regularized).
$$ ra_{neutral\,stable} = \mathrm{ifelse}\left(\mathrm{<}\left(0, zeta\right), \frac{1}{kappa \cdot u_{star}} \cdot \left(\ln\left(\frac{z}{z0}\right) + 4.7 \cdot \left(zeta - zeta_{0}\right)\right), \frac{1}{kappa \cdot u_{star}} \cdot \ln\left(\frac{z}{z0}\right)\right) $$Aerodynamic resistance for neutral/stable conditions (zeta >= 0). Stable: adds 4.7*(zeta-zeta_0) term.
$$ i_{unstable} = \mathrm{ifelse}\left(\mathrm{<}\left(zeta, 0\right), 1, 0\right) $$Guard flag: 1 when zeta<0 (unstable), 0 otherwise. Prevents domain error in eta calculation.
$$ eta_{0} = \left(1 - 15 \cdot zeta_{0} \cdot i_{unstable}\right)^{0.25} $$Stability correction factor eta_0 = (1 - 15zeta_0i_unstable)^(1/4) for unstable regime.
$$ eta = \left(1 - 15 \cdot zeta \cdot i_{unstable}\right)^{0.25} $$Stability correction factor eta = (1 - 15zetai_unstable)^(1/4) for unstable regime.
$$ Ra = \mathrm{ifelse}\left(\mathrm{<}\left(zeta, 0\right), \frac{1}{kappa \cdot u_{star}} \cdot \left(\ln\left(\frac{z}{z0}\right) + \ln\left(\frac{\left(eta_{0}^{2} + 1\right) \cdot \left(eta_{0} + 1\right)^{2}}{\left(eta^{2} + 1\right) \cdot \left(eta + 1\right)^{2}}\right) + 2 \cdot \left(\mathrm{atan}\left(eta\right) - \mathrm{atan}\left(eta_{0}\right)\right)\right), ra_{neutral\,stable}\right) $$Aerodynamic resistance Ra [s/m] (Seinfeld & Pandis 2006 Eq. 19.13-19.14). Three stability regimes: unstable (zeta<0), neutral (zeta=0), stable (zeta>0).
$$ mu_{air} = \frac{1.458 \times 10^{-6} \cdot Ts^{1.5}}{Ts + 110.4} $$Dynamic viscosity of air [kg/(m*s)] (mu(Ts), Ts in Kelvin).
$$ Dh2o = -2.775 \times 10^{-6} + 4.479 \times 10^{-8} \cdot Ts + 1.656 \times 10^{-10} \cdot Ts^{2} $$Molecular diffusivity of water vapor in air [m^2/s] (dH2O(Ts), Ts in Kelvin).
$$ table_{index} = \left(landuse - 1\right) \cdot 5 + season $$1-D table index into the 5x11 Wesley (1989) resistance tables, column-major flattened: (iLandUse-1)*5 + iSeason.
$$ r_{i\,val} = \mathrm{fn}\left(\mathrm{const}\left(\right), \mathrm{const}\left(\right), table_{index}\right) $$Wesley (1989) minimum stomatal resistance r_i [s/m] for the current season/land-use, looked up from the 5x11 r_i table (column-major, axis [1..55]) at table_index.
$$ r_{lu\,val} = \mathrm{fn}\left(\mathrm{const}\left(\right), \mathrm{const}\left(\right), table_{index}\right) $$Wesley (1989) cuticle resistance r_lu [s/m] for the current season/land-use.
$$ r_{ac\,val} = \mathrm{fn}\left(\mathrm{const}\left(\right), \mathrm{const}\left(\right), table_{index}\right) $$Wesley (1989) lower-canopy/ground aerodynamic resistance r_ac [s/m].
$$ r_{gsS\,val} = \mathrm{fn}\left(\mathrm{const}\left(\right), \mathrm{const}\left(\right), table_{index}\right) $$Wesley (1989) SO2 ground/soil resistance r_gsS [s/m].
$$ r_{gsO\,val} = \mathrm{fn}\left(\mathrm{const}\left(\right), \mathrm{const}\left(\right), table_{index}\right) $$Wesley (1989) O3 ground/soil resistance r_gsO [s/m].
$$ r_{clS\,val} = \mathrm{fn}\left(\mathrm{const}\left(\right), \mathrm{const}\left(\right), table_{index}\right) $$Wesley (1989) SO2 lower-canopy resistance r_clS [s/m].
$$ r_{clO\,val} = \mathrm{fn}\left(\mathrm{const}\left(\right), \mathrm{const}\left(\right), table_{index}\right) $$Wesley (1989) O3 lower-canopy resistance r_clO [s/m].
$$ rs = \mathrm{wesely_stomatal_resistance}\left(r_{i}=r_{i\,val}, G=G, T_{c}=Ts_{c}\right) $$Stomatal resistance rs [s/m] (Wesley 1989 Eq. 3), the wesely_stomatal_resistance template of wesley1989/resistance_templates.esm applied to Ts_c (Celsius). With rain=dew=false the wet-surface multiplier=1. Capped at 1e25 s/m when Ts_c <= 0.1 degC.
$$ rdc = \frac{100.0 \cdot \left(1.0 + \frac{1000.0}{G + 10.0}\right)}{1.0 + 1000.0 \cdot theta} $$Lower-canopy aerodynamic resistance rdc [s/m] (Wesley 1989). Independent of species.
$$ correction = \mathrm{wesely_cold_correction}\left(T_{c}=Ts_{c}\right) $$Cold-temperature correction for all surface resistances: 1000 s/m * exp(-Ts_c/(1 degC) - 4) when Ts_c < 0 degC, else 0. Defined by the wesely_cold_correction template of wesley1989/resistance_templates.esm.
$$ v_{NO} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.3}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.3 + \frac{1.0}{1 \times 10^{-6}}} + \frac{1.0}{\frac{r_{lu\,val}}{3.0000000000000004 \times 10^{-8}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{0.003} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{0.003} + correction}}, 10.0\right), 9999.0\right)} $$NO dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.3, Hstar=0.003, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{NO} = \frac{v_{NO} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$NO dry deposition rate [1/s] = v_NO * g * rho_A / del_P.
$$ v_{Ald} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.6}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.6 + \frac{1.0}{0.005}} + \frac{1.0}{\frac{r_{lu\,val}}{0.00015000000000000001} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{15.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{15.0} + correction}}, 10.0\right), 9999.0\right)} $$Acetaldehyde (aldehyde class) dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=15.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{Ald} = \frac{v_{Ald} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$Ald dry deposition rate [1/s] = v_Ald * g * rho_A / del_P.
$$ v_{HCHO} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.3}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.3 + \frac{1.0}{2.0}} + \frac{1.0}{\frac{r_{lu\,val}}{0.060000000000000005} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{6000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{6000.0} + correction}}, 10.0\right), 9999.0\right)} $$Formaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.3, Hstar=6000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HCHO} = \frac{v_{HCHO} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HCHO dry deposition rate [1/s] = v_HCHO * g * rho_A / del_P.
$$ v_{OP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.6}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.6 + \frac{1.0}{10.08}} + \frac{1.0}{\frac{r_{lu\,val}}{0.1024} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{240.0}{100000.0 \cdot r_{clS\,val}} + \frac{0.1}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{240.0}{100000.0 \cdot r_{gsS\,val}} + \frac{0.1}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Methyl hydroperoxide (organic peroxide class) dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=240.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{OP} = \frac{v_{OP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$OP dry deposition rate [1/s] = v_OP * g * rho_A / del_P.
$$ v_{PAA} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.0}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.0 + \frac{1.0}{10.18}} + \frac{1.0}{\frac{r_{lu\,val}}{0.10540000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{540.0}{100000.0 \cdot r_{clS\,val}} + \frac{0.1}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{540.0}{100000.0 \cdot r_{gsS\,val}} + \frac{0.1}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxyacetyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.0, Hstar=540.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{PAA} = \frac{v_{PAA} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$PAA dry deposition rate [1/s] = v_PAA * g * rho_A / del_P.
$$ v_{ORA} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.6}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.6 + \frac{1.0}{1333.3333333333333}} + \frac{1.0}{\frac{r_{lu\,val}}{40.0} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{4000000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{4000000.0} + correction}}, 10.0\right), 9999.0\right)} $$Formic acid (organic acid class) dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=4000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ORA} = \frac{v_{ORA} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ORA dry deposition rate [1/s] = v_ORA * g * rho_A / del_P.
$$ v_{NH3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 0.97}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 0.97 + \frac{1.0}{6.666666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{0.2} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{20000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{20000.0} + correction}}, 10.0\right), 9999.0\right)} $$NH3 dry deposition velocity [m/s]. GasData: Dh2oPerDx=0.97, Hstar=20000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{NH3} = \frac{v_{NH3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$NH3 dry deposition rate [1/s] = v_NH3 * g * rho_A / del_P.
$$ v_{HNO2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.6}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.6 + \frac{1.0}{43.333333333333336}} + \frac{1.0}{\frac{r_{lu\,val}}{1.1} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{100000.0}{100000.0 \cdot r_{clS\,val}} + \frac{0.1}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{100000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{0.1}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Nitrous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=100000.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HNO2} = \frac{v_{HNO2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HNO2 dry deposition rate [1/s] = v_HNO2 * g * rho_A / del_P.
$$ v_{ACET} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.795685104}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.795685104 + \frac{1.0}{133.33333333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{2.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{100000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{100000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Acetone dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.795685104, Hstar=100000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ACET} = \frac{v_{ACET} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ACET dry deposition rate [1/s] = v_ACET * g * rho_A / del_P.
$$ v_{ACTA} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.825879681}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.825879681 + \frac{1.0}{101.36666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{1.041} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{4100.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{4100.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Acetic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.825879681, Hstar=4100.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ACTA} = \frac{v_{ACTA} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ACTA dry deposition rate [1/s] = v_ACTA * g * rho_A / del_P.
$$ v_{ALD2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.563873924}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.563873924 + \frac{1.0}{100.00366666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00011} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{11.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{11.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Acetaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.563873924, Hstar=11.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ALD2} = \frac{v_{ALD2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ALD2 dry deposition rate [1/s] = v_ALD2 * g * rho_A / del_P.
$$ v_{AROMP4} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.943968688}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.943968688 + \frac{1.0}{236.66666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{5.1000000000000005} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{410000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{410000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Generic C4 product of aromatics dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.943968688, Hstar=410000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{AROMP4} = \frac{v_{AROMP4} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$AROMP4 dry deposition rate [1/s] = v_AROMP4 * g * rho_A / del_P.
$$ v_{AROMP5} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.333533261}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.333533261 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$C5 unsaturated dicarbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.333533261, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{AROMP5} = \frac{v_{AROMP5} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$AROMP5 dry deposition rate [1/s] = v_AROMP5 * g * rho_A / del_P.
$$ v_{ATOOH} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.236236775}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.236236775 + \frac{1.0}{100.098}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00294} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$ATO2 peroxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.236236775, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ATOOH} = \frac{v_{ATOOH} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ATOOH dry deposition rate [1/s] = v_ATOOH * g * rho_A / del_P.
$$ v_{BALD} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.427046586}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.427046586 + \frac{1.0}{100.01266666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00038} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{38.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{38.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Benzaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427046586, Hstar=38.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{BALD} = \frac{v_{BALD} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$BALD dry deposition rate [1/s] = v_BALD * g * rho_A / del_P.
$$ v_{BENZP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.472252775}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.472252775 + \frac{1.0}{100.96666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{1.029} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2900.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2900.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Phenyl hydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.472252775, Hstar=2900.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{BENZP} = \frac{v_{BENZP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$BENZP dry deposition rate [1/s] = v_BENZP * g * rho_A / del_P.
$$ v_{Br2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.978296144}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.978296144 + \frac{1.0}{0.00025333333333333333}} + \frac{1.0}{\frac{r_{lu\,val}}{7.600000000000001 \times 10^{-6}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{0.76} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{0.76} + correction}}, 10.0\right), 9999.0\right)} $$Molecular Bromine dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.978296144, Hstar=0.76, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{Br2} = \frac{v_{Br2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$Br2 dry deposition rate [1/s] = v_Br2 * g * rho_A / del_P.
$$ v_{BrCl} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.531491424}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.531491424 + \frac{1.0}{0.00032333333333333335}} + \frac{1.0}{\frac{r_{lu\,val}}{9.7 \times 10^{-6}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{0.97} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{0.97} + correction}}, 10.0\right), 9999.0\right)} $$Bromine chloride dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.531491424, Hstar=0.97, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{BrCl} = \frac{v_{BrCl} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$BrCl dry deposition rate [1/s] = v_BrCl * g * rho_A / del_P.
$$ v_{BrNO3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.806635356}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.806635356 + \frac{1.0}{3.3333333333333332 \times 10^{16}}} + \frac{1.0}{\frac{r_{lu\,val}}{1000000000000000.1} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{1 \times 10^{20}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{1 \times 10^{20}} + correction}}, 10.0\right), 9999.0\right)} $$Bromine nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.806635356, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{BrNO3} = \frac{v_{BrNO3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$BrNO3 dry deposition rate [1/s] = v_BrNO3 * g * rho_A / del_P.
$$ v_{BZCO3H} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.768903222}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.768903222 + \frac{1.0}{108.0}} + \frac{1.0}{\frac{r_{lu\,val}}{1.24} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{24000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{24000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Perbenzoic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.768903222, Hstar=24000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{BZCO3H} = \frac{v_{BZCO3H} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$BZCO3H dry deposition rate [1/s] = v_BZCO3H * g * rho_A / del_P.
$$ v_{BZPAN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.188213391}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.188213391 + \frac{1.0}{100.02333333333333}} + \frac{1.0}{\frac{r_{lu\,val}}{1.0007} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{70.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{70.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxybenzoylnitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.188213391, Hstar=70.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{BZPAN} = \frac{v_{BZPAN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$BZPAN dry deposition rate [1/s] = v_BZPAN * g * rho_A / del_P.
$$ v_{CH2O} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.291091904}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.291091904 + \frac{1.0}{101.0}} + \frac{1.0}{\frac{r_{lu\,val}}{1.03} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{3000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{3000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Formaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.291091904, Hstar=3000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{CH2O} = \frac{v_{CH2O} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$CH2O dry deposition rate [1/s] = v_CH2O * g * rho_A / del_P.
$$ v_{Cl2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.983821576}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.983821576 + \frac{1.0}{3.066666666666667 \times 10^{-5}}} + \frac{1.0}{\frac{r_{lu\,val}}{9.200000000000001 \times 10^{-7}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{0.092} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{0.092} + correction}}, 10.0\right), 9999.0\right)} $$Molecular chlorine dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.983821576, Hstar=0.092, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{Cl2} = \frac{v_{Cl2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$Cl2 dry deposition rate [1/s] = v_Cl2 * g * rho_A / del_P.
$$ v_{ClNO2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.126302433}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.126302433 + \frac{1.0}{1.4999999999999999 \times 10^{-5}}} + \frac{1.0}{\frac{r_{lu\,val}}{4.5000000000000003 \times 10^{-7}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{0.045} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{0.045} + correction}}, 10.0\right), 9999.0\right)} $$Nitryl chloride dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.126302433, Hstar=0.045, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ClNO2} = \frac{v_{ClNO2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ClNO2 dry deposition rate [1/s] = v_ClNO2 * g * rho_A / del_P.
$$ v_{ClNO3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.325789543}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.325789543 + \frac{1.0}{3.3333333333333332 \times 10^{16}}} + \frac{1.0}{\frac{r_{lu\,val}}{1000000000000000.1} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{1 \times 10^{20}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{1 \times 10^{20}} + correction}}, 10.0\right), 9999.0\right)} $$Chlorine nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.325789543, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ClNO3} = \frac{v_{ClNO3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ClNO3 dry deposition rate [1/s] = v_ClNO3 * g * rho_A / del_P.
$$ v_{ClO} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.689943485}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.689943485 + \frac{1.0}{0.00023333333333333333}} + \frac{1.0}{\frac{r_{lu\,val}}{7 \times 10^{-6}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{0.7} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{0.7} + correction}}, 10.0\right), 9999.0\right)} $$Chlorine monoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.689943485, Hstar=0.7, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ClO} = \frac{v_{ClO} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ClO dry deposition rate [1/s] = v_ClO * g * rho_A / del_P.
$$ v_{ClOO} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.934953215}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.934953215 + \frac{1.0}{0.0003333333333333333}} + \frac{1.0}{\frac{r_{lu\,val}}{1 \times 10^{-5}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{1.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{1.0} + correction}}, 10.0\right), 9999.0\right)} $$Chlorine dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.934953215, Hstar=1.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ClOO} = \frac{v_{ClOO} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ClOO dry deposition rate [1/s] = v_ClOO * g * rho_A / del_P.
$$ v_{CSL} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.450037177}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.450037177 + \frac{1.0}{100.14}} + \frac{1.0}{\frac{r_{lu\,val}}{1.0042} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{420.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{420.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Cresols dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.450037177, Hstar=420.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{CSL} = \frac{v_{CSL} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$CSL dry deposition rate [1/s] = v_CSL * g * rho_A / del_P.
$$ v_{EOH} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.599147774}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.599147774 + \frac{1.0}{0.06333333333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{0.0019000000000000002} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{190.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{190.0} + correction}}, 10.0\right), 9999.0\right)} $$Ethanol dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.599147774, Hstar=190.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{EOH} = \frac{v_{EOH} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$EOH dry deposition rate [1/s] = v_EOH * g * rho_A / del_P.
$$ v_{ETHLN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.414894654}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.414894654 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Ethanol nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.414894654, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ETHLN} = \frac{v_{ETHLN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ETHLN dry deposition rate [1/s] = v_ETHLN * g * rho_A / del_P.
$$ v_{ETHN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.437885999}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.437885999 + \frac{1.0}{23.0}} + \frac{1.0}{\frac{r_{lu\,val}}{0.49} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{39000.0}{100000.0 \cdot r_{clS\,val}} + \frac{0.1}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{39000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{0.1}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$hydroxy-nitrooxy-ethane dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.437885999, Hstar=39000.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ETHN} = \frac{v_{ETHN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ETHN dry deposition rate [1/s] = v_ETHN * g * rho_A / del_P.
$$ v_{ETHP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.081716485}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.081716485 + \frac{1.0}{226.66666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{6.6000000000000005} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{650000.0}{100000.0 \cdot r_{clS\,val}} + \frac{0.1}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{650000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{0.1}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$hydroxy-hydroperoxy-ethane dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.081716485, Hstar=650000.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ETHP} = \frac{v_{ETHP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ETHP dry deposition rate [1/s] = v_ETHP * g * rho_A / del_P.
$$ v_{ETNO3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.248490219}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.248490219 + \frac{1.0}{10.000533333333333}} + \frac{1.0}{\frac{r_{lu\,val}}{0.10001600000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1.6}{100000.0 \cdot r_{clS\,val}} + \frac{0.1}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1.6}{100000.0 \cdot r_{gsS\,val}} + \frac{0.1}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Ethyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.248490219, Hstar=1.6, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ETNO3} = \frac{v_{ETNO3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ETNO3 dry deposition rate [1/s] = v_ETNO3 * g * rho_A / del_P.
$$ v_{ETP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.856330695}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.856330695 + \frac{1.0}{100.098}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00294} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Ethylhydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.856330695, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ETP} = \frac{v_{ETP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ETP dry deposition rate [1/s] = v_ETP * g * rho_A / del_P.
$$ v_{GLYC} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.825879681}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.825879681 + \frac{1.0}{113.66666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{1.4100000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{41000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{41000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Glycoaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.825879681, Hstar=41000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{GLYC} = \frac{v_{GLYC} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$GLYC dry deposition rate [1/s] = v_GLYC * g * rho_A / del_P.
$$ v_{GLYX} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.794912135}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.794912135 + \frac{1.0}{220.0}} + \frac{1.0}{\frac{r_{lu\,val}}{4.6} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{360000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{360000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Glyoxal dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.794912135, Hstar=360000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{GLYX} = \frac{v_{GLYX} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$GLYX dry deposition rate [1/s] = v_GLYX * g * rho_A / del_P.
$$ v_{H2O2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.374189565}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.374189565 + \frac{1.0}{16766.666666666668}} + \frac{1.0}{\frac{r_{lu\,val}}{501.00000000000006} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{50000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{50000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Hydrogen peroxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.374189565, Hstar=50000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{H2O2} = \frac{v_{H2O2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$H2O2 dry deposition rate [1/s] = v_H2O2 * g * rho_A / del_P.
$$ v_{HAC} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.027822692}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.027822692 + \frac{1.0}{566.6666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{15.000000000000002} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Hydroxyacetone dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.027822692, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HAC} = \frac{v_{HAC} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HAC dry deposition rate [1/s] = v_HAC * g * rho_A / del_P.
$$ v_{HBr} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.119242195}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.119242195 + \frac{1.0}{2366666666666.6665}} + \frac{1.0}{\frac{r_{lu\,val}}{71000000000.0} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{7100000000000000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{7100000000000000.0} + correction}}, 10.0\right), 9999.0\right)} $$Hypobromic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.119242195, Hstar=7100000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HBr} = \frac{v_{HBr} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HBr dry deposition rate [1/s] = v_HBr * g * rho_A / del_P.
$$ v_{HC5A} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.357553733}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.357553733 + \frac{1.0}{2.6}} + \frac{1.0}{\frac{r_{lu\,val}}{0.078} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{7800.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{7800.0} + correction}}, 10.0\right), 9999.0\right)} $$isoprene-4,1-hydroxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.357553733, Hstar=7800.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HC5A} = \frac{v_{HC5A} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HC5A dry deposition rate [1/s] = v_HC5A * g * rho_A / del_P.
$$ v_{HCl} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.422421336}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.422421336 + \frac{1.0}{6666666666.666667}} + \frac{1.0}{\frac{r_{lu\,val}}{200000000.00000003} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{20000000000000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{20000000000000.0} + correction}}, 10.0\right), 9999.0\right)} $$Hydrochloric acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.422421336, Hstar=20000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HCl} = \frac{v_{HCl} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HCl dry deposition rate [1/s] = v_HCl * g * rho_A / del_P.
$$ v_{HCOOH} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.598453398}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.598453398 + \frac{1.0}{102.96666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{1.089} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{8900.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{8900.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Formic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.598453398, Hstar=8900.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HCOOH} = \frac{v_{HCOOH} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HCOOH dry deposition rate [1/s] = v_HCOOH * g * rho_A / del_P.
$$ v_{HI} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.664598268}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.664598268 + \frac{1.0}{7833333333333.333}} + \frac{1.0}{\frac{r_{lu\,val}}{235000000000.00003} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{2.35 \times 10^{16}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{2.35 \times 10^{16}} + correction}}, 10.0\right), 9999.0\right)} $$Hydrogen iodide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.664598268, Hstar=2.35e+16, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HI} = \frac{v_{HI} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HI dry deposition rate [1/s] = v_HI * g * rho_A / del_P.
$$ v_{HMHP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.885554366}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.885554366 + \frac{1.0}{533.3333333333333}} + \frac{1.0}{\frac{r_{lu\,val}}{14.000000000000002} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1300000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1300000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Hydroxymethyl hydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.885554366, Hstar=1300000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HMHP} = \frac{v_{HMHP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HMHP dry deposition rate [1/s] = v_HMHP * g * rho_A / del_P.
$$ v_{HMML} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.380632525}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.380632525 + \frac{1.0}{140.0}} + \frac{1.0}{\frac{r_{lu\,val}}{2.2} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{120000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{120000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$hydroxymethyl-methyl-a-lactone dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=120000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HMML} = \frac{v_{HMML} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HMML dry deposition rate [1/s] = v_HMML * g * rho_A / del_P.
$$ v_{HNO3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.870183545}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.870183545 + \frac{1.0}{33333333333.333332}} + \frac{1.0}{\frac{r_{lu\,val}}{1000000000.0000001} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{100000000000000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{100000000000000.0} + correction}}, 10.0\right), 9999.0\right)} $$Nitric acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.870183545, Hstar=100000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HNO3} = \frac{v_{HNO3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HNO3 dry deposition rate [1/s] = v_HNO3 * g * rho_A / del_P.
$$ v_{HOBr} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.319336638}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.319336638 + \frac{1.0}{0.43333333333333335}} + \frac{1.0}{\frac{r_{lu\,val}}{0.013000000000000001} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{1300.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{1300.0} + correction}}, 10.0\right), 9999.0\right)} $$Hypobromous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.319336638, Hstar=1300.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HOBr} = \frac{v_{HOBr} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HOBr dry deposition rate [1/s] = v_HOBr * g * rho_A / del_P.
$$ v_{HOCl} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.706287613}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.706287613 + \frac{1.0}{0.21666666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{0.006500000000000001} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{650.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{650.0} + correction}}, 10.0\right), 9999.0\right)} $$Hypochlorous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.706287613, Hstar=650.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HOCl} = \frac{v_{HOCl} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HOCl dry deposition rate [1/s] = v_HOCl * g * rho_A / del_P.
$$ v_{HOI} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.826147328}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.826147328 + \frac{1.0}{5.133333333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{0.15400000000000003} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{15400.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{15400.0} + correction}}, 10.0\right), 9999.0\right)} $$Hypoiodous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.826147328, Hstar=15400.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HOI} = \frac{v_{HOI} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HOI dry deposition rate [1/s] = v_HOI * g * rho_A / del_P.
$$ v_{HONIT} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.454607581}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.454607581 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$2nd gen monoterpene organic nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.454607581, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HONIT} = \frac{v_{HONIT} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HONIT dry deposition rate [1/s] = v_HONIT * g * rho_A / del_P.
$$ v_{HPALD1} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.538935715}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.538935715 + \frac{1.0}{13.333333333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{0.4} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{40000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{40000.0} + correction}}, 10.0\right), 9999.0\right)} $$d-4,1-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HPALD1} = \frac{v_{HPALD1} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HPALD1 dry deposition rate [1/s] = v_HPALD1 * g * rho_A / del_P.
$$ v_{HPALD2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.538935715}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.538935715 + \frac{1.0}{13.333333333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{0.4} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{40000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{40000.0} + correction}}, 10.0\right), 9999.0\right)} $$d-1,4-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HPALD2} = \frac{v_{HPALD2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HPALD2 dry deposition rate [1/s] = v_HPALD2 * g * rho_A / del_P.
$$ v_{HPALD3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.538935715}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.538935715 + \frac{1.0}{13.333333333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{0.4} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{40000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{40000.0} + correction}}, 10.0\right), 9999.0\right)} $$b-2,1-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HPALD3} = \frac{v_{HPALD3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HPALD3 dry deposition rate [1/s] = v_HPALD3 * g * rho_A / del_P.
$$ v_{HPALD4} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.538935715}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.538935715 + \frac{1.0}{13.333333333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{0.4} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{40000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{40000.0} + correction}}, 10.0\right), 9999.0\right)} $$b-3,4-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HPALD4} = \frac{v_{HPALD4} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HPALD4 dry deposition rate [1/s] = v_HPALD4 * g * rho_A / del_P.
$$ v_{HPETHNL} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.054743675}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.054743675 + \frac{1.0}{113.66666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{1.4100000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{41000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{41000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Hydroperoxy ethanal dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.054743675, Hstar=41000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{HPETHNL} = \frac{v_{HPETHNL} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$HPETHNL dry deposition rate [1/s] = v_HPETHNL * g * rho_A / del_P.
$$ v_{I2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.753403898}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.753403898 + \frac{1.0}{0.0009000000000000001}} + \frac{1.0}{\frac{r_{lu\,val}}{2.7000000000000002 \times 10^{-5}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{2.7} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{2.7} + correction}}, 10.0\right), 9999.0\right)} $$Molecular iodine dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.753403898, Hstar=2.7, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{I2} = \frac{v_{I2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$I2 dry deposition rate [1/s] = v_I2 * g * rho_A / del_P.
$$ v_{I2O2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.983002729}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.983002729 + \frac{1.0}{3.3333333333333332 \times 10^{16}}} + \frac{1.0}{\frac{r_{lu\,val}}{1000000000000000.1} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{1 \times 10^{20}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{1 \times 10^{20}} + correction}}, 10.0\right), 9999.0\right)} $$Diiodine dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.983002729, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{I2O2} = \frac{v_{I2O2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$I2O2 dry deposition rate [1/s] = v_I2O2 * g * rho_A / del_P.
$$ v_{I2O3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 4.092975165}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 4.092975165 + \frac{1.0}{3.3333333333333332 \times 10^{16}}} + \frac{1.0}{\frac{r_{lu\,val}}{1000000000000000.1} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{1 \times 10^{20}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{1 \times 10^{20}} + correction}}, 10.0\right), 9999.0\right)} $$Diiodine trioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=4.092975165, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{I2O3} = \frac{v_{I2O3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$I2O3 dry deposition rate [1/s] = v_I2O3 * g * rho_A / del_P.
$$ v_{I2O4} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 4.200069126}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 4.200069126 + \frac{1.0}{3.3333333333333332 \times 10^{16}}} + \frac{1.0}{\frac{r_{lu\,val}}{1000000000000000.1} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{1 \times 10^{20}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{1 \times 10^{20}} + correction}}, 10.0\right), 9999.0\right)} $$Diiodine tetraoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=4.200069126, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{I2O4} = \frac{v_{I2O4} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$I2O4 dry deposition rate [1/s] = v_I2O4 * g * rho_A / del_P.
$$ v_{IBr} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.388907673}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.388907673 + \frac{1.0}{0.0081}} + \frac{1.0}{\frac{r_{lu\,val}}{0.00024300000000000002} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{24.3} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{24.3} + correction}}, 10.0\right), 9999.0\right)} $$Iodine monobromide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.388907673, Hstar=24.3, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IBr} = \frac{v_{IBr} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IBr dry deposition rate [1/s] = v_IBr * g * rho_A / del_P.
$$ v_{ICHE} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.538935715}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.538935715 + \frac{1.0}{26766.666666666668}} + \frac{1.0}{\frac{r_{lu\,val}}{801.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{80000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{80000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Isoprene hydroxy-carbonyl-epoxides dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ICHE} = \frac{v_{ICHE} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ICHE dry deposition rate [1/s] = v_ICHE * g * rho_A / del_P.
$$ v_{ICl} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.002889488}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.002889488 + \frac{1.0}{0.037}} + \frac{1.0}{\frac{r_{lu\,val}}{0.00111} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{111.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{111.0} + correction}}, 10.0\right), 9999.0\right)} $$Iodine monochloride dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.002889488, Hstar=111.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ICl} = \frac{v_{ICl} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ICl dry deposition rate [1/s] = v_ICl * g * rho_A / del_P.
$$ v_{ICN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.838298642}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.838298642 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Lumped isoprene carbonyl-nitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.838298642, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ICN} = \frac{v_{ICN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ICN dry deposition rate [1/s] = v_ICN * g * rho_A / del_P.
$$ v_{ICPDH} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.886969263}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.886969263 + \frac{1.0}{33433.333333333336}} + \frac{1.0}{\frac{r_{lu\,val}}{1001.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Isoprene dihydroxy hydroperoxycarbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.886969263, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ICPDH} = \frac{v_{ICPDH} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ICPDH dry deposition rate [1/s] = v_ICPDH * g * rho_A / del_P.
$$ v_{IDC} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.333652194}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.333652194 + \frac{1.0}{13.333333333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{0.4} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{40000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{40000.0} + correction}}, 10.0\right), 9999.0\right)} $$Lumped isoprene dicarbonyls dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.333652194, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IDC} = \frac{v_{IDC} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IDC dry deposition rate [1/s] = v_IDC * g * rho_A / del_P.
$$ v_{IDCHP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.867483999}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.867483999 + \frac{1.0}{33433.333333333336}} + \frac{1.0}{\frac{r_{lu\,val}}{1001.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Isoprene dicarbonyl hydroxy dihydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.867483999, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IDCHP} = \frac{v_{IDCHP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IDCHP dry deposition rate [1/s] = v_IDCHP * g * rho_A / del_P.
$$ v_{IDHDP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.055299253}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.055299253 + \frac{1.0}{33433.333333333336}} + \frac{1.0}{\frac{r_{lu\,val}}{1001.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Isoprene dihydroxy dihydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.055299253, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IDHDP} = \frac{v_{IDHDP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IDHDP dry deposition rate [1/s] = v_IDHDP * g * rho_A / del_P.
$$ v_{IDHPE} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.886969263}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.886969263 + \frac{1.0}{33433.333333333336}} + \frac{1.0}{\frac{r_{lu\,val}}{1001.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Isoprene dihydroxy hydroperoxy epoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.886969263, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IDHPE} = \frac{v_{IDHPE} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IDHPE dry deposition rate [1/s] = v_IDHPE * g * rho_A / del_P.
$$ v_{IDN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.265875962}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.265875962 + \frac{1.0}{33433.333333333336}} + \frac{1.0}{\frac{r_{lu\,val}}{1001.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Lumped isoprene dinitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.265875962, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IDN} = \frac{v_{IDN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IDN dry deposition rate [1/s] = v_IDN * g * rho_A / del_P.
$$ v_{IEPOXA} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.427275283}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.427275283 + \frac{1.0}{26766.666666666668}} + \frac{1.0}{\frac{r_{lu\,val}}{801.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{80000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{80000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$trans-Beta isoprene epoxydiol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427275283, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IEPOXA} = \frac{v_{IEPOXA} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IEPOXA dry deposition rate [1/s] = v_IEPOXA * g * rho_A / del_P.
$$ v_{IEPOXB} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.427275283}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.427275283 + \frac{1.0}{26766.666666666668}} + \frac{1.0}{\frac{r_{lu\,val}}{801.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{80000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{80000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$cis-Beta isoprene epoxydiol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427275283, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IEPOXB} = \frac{v_{IEPOXB} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IEPOXB dry deposition rate [1/s] = v_IEPOXB * g * rho_A / del_P.
$$ v_{IEPOXD} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.427275283}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.427275283 + \frac{1.0}{26766.666666666668}} + \frac{1.0}{\frac{r_{lu\,val}}{801.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{80000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{80000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Delta isoprene epoxydiol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427275283, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IEPOXD} = \frac{v_{IEPOXD} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IEPOXD dry deposition rate [1/s] = v_IEPOXD * g * rho_A / del_P.
$$ v_{IHN1} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.857982893}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.857982893 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Isoprene-d-4,1-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IHN1} = \frac{v_{IHN1} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IHN1 dry deposition rate [1/s] = v_IHN1 * g * rho_A / del_P.
$$ v_{IHN2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.857982893}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.857982893 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Isoprene-b-1,2-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IHN2} = \frac{v_{IHN2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IHN2 dry deposition rate [1/s] = v_IHN2 * g * rho_A / del_P.
$$ v_{IHN3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.857982893}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.857982893 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Isoprene-b-4,3-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IHN3} = \frac{v_{IHN3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IHN3 dry deposition rate [1/s] = v_IHN3 * g * rho_A / del_P.
$$ v_{IHN4} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.857982893}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.857982893 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Isoprene-d-4,1-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IHN4} = \frac{v_{IHN4} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IHN4 dry deposition rate [1/s] = v_IHN4 * g * rho_A / del_P.
$$ v_{INPB} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.009352286}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.009352286 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Lumped b-hydroperoxy isoprene nitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.009352286, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{INPB} = \frac{v_{INPB} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$INPB dry deposition rate [1/s] = v_INPB * g * rho_A / del_P.
$$ v_{INPD} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.009352286}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.009352286 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Lumped d-hydroperoxy isoprene nitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.009352286, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{INPD} = \frac{v_{INPD} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$INPD dry deposition rate [1/s] = v_INPD * g * rho_A / del_P.
$$ v_{IONO} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.098058022}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.098058022 + \frac{1.0}{9.999999999999999 \times 10^{-5}}} + \frac{1.0}{\frac{r_{lu\,val}}{3 \times 10^{-6}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{0.3} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{0.3} + correction}}, 10.0\right), 9999.0\right)} $$Nitryl iodide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.098058022, Hstar=0.3, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IONO} = \frac{v_{IONO} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IONO dry deposition rate [1/s] = v_IONO * g * rho_A / del_P.
$$ v_{IONO2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.238224586}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.238224586 + \frac{1.0}{3.3333333333333332 \times 10^{16}}} + \frac{1.0}{\frac{r_{lu\,val}}{1000000000000000.1} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{1 \times 10^{20}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{1 \times 10^{20}} + correction}}, 10.0\right), 9999.0\right)} $$Iodine nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.238224586, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IONO2} = \frac{v_{IONO2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IONO2 dry deposition rate [1/s] = v_IONO2 * g * rho_A / del_P.
$$ v_{IPRNO3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.415469232}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.415469232 + \frac{1.0}{10.000263333333333}} + \frac{1.0}{\frac{r_{lu\,val}}{0.10000790000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{0.79}{100000.0 \cdot r_{clS\,val}} + \frac{0.1}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{0.79}{100000.0 \cdot r_{gsS\,val}} + \frac{0.1}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Isopropyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.415469232, Hstar=0.79, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{IPRNO3} = \frac{v_{IPRNO3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$IPRNO3 dry deposition rate [1/s] = v_IPRNO3 * g * rho_A / del_P.
$$ v_{ITCN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.291271958}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.291271958 + \frac{1.0}{33433.333333333336}} + \frac{1.0}{\frac{r_{lu\,val}}{1001.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$lumped isoprene tetrafunctional carbonylnitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.291271958, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ITCN} = \frac{v_{ITCN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ITCN dry deposition rate [1/s] = v_ITCN * g * rho_A / del_P.
$$ v_{ITHN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.308262103}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.308262103 + \frac{1.0}{33433.333333333336}} + \frac{1.0}{\frac{r_{lu\,val}}{1001.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Lumped isoprene tetrafunctional hydroxynitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.308262103, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{ITHN} = \frac{v_{ITHN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$ITHN dry deposition rate [1/s] = v_ITHN * g * rho_A / del_P.
$$ v_{LIMO} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.750196241}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.750196241 + \frac{1.0}{2.3333333333333336 \times 10^{-5}}} + \frac{1.0}{\frac{r_{lu\,val}}{7.000000000000001 \times 10^{-7}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{0.07} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{0.07} + correction}}, 10.0\right), 9999.0\right)} $$Limonene dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.750196241, Hstar=0.07, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{LIMO} = \frac{v_{LIMO} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$LIMO dry deposition rate [1/s] = v_LIMO * g * rho_A / del_P.
$$ v_{LVOC} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.925550478}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.925550478 + \frac{1.0}{33433.333333333336}} + \frac{1.0}{\frac{r_{lu\,val}}{1001.0000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{100000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Gas-phase low-volatility non-IEPOX product of RIP ox dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.925550478, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{LVOC} = \frac{v_{LVOC} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$LVOC dry deposition rate [1/s] = v_LVOC * g * rho_A / del_P.
$$ v_{MACR} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.972597602}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.972597602 + \frac{1.0}{100.00216666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{1.000065} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{6.5}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{6.5}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Methacrolein dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.972597602, Hstar=6.5, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MACR} = \frac{v_{MACR} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MACR dry deposition rate [1/s] = v_MACR * g * rho_A / del_P.
$$ v_{MACR1OOH} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.380632525}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.380632525 + \frac{1.0}{100.098}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00294} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peracid from MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MACR1OOH} = \frac{v_{MACR1OOH} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MACR1OOH dry deposition rate [1/s] = v_MACR1OOH * g * rho_A / del_P.
$$ v_{MAP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.054743675}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.054743675 + \frac{1.0}{100.28}} + \frac{1.0}{\frac{r_{lu\,val}}{1.0084} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{840.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{840.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxyacetic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.054743675, Hstar=840.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MAP} = \frac{v_{MAP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MAP dry deposition rate [1/s] = v_MAP * g * rho_A / del_P.
$$ v_{MCRDH} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.404067025}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.404067025 + \frac{1.0}{566.6666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{15.000000000000002} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Dihydroxy-methacrolein dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.404067025, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MCRDH} = \frac{v_{MCRDH} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MCRDH dry deposition rate [1/s] = v_MCRDH * g * rho_A / del_P.
$$ v_{MCRENOL} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.186155589}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.186155589 + \frac{1.0}{100.098}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00294} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Lumped enols from MVK/MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.186155589, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MCRENOL} = \frac{v_{MCRENOL} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MCRENOL dry deposition rate [1/s] = v_MCRENOL * g * rho_A / del_P.
$$ v_{MCRHN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.876953728}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.876953728 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Nitrate from MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.876953728, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MCRHN} = \frac{v_{MCRHN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MCRHN dry deposition rate [1/s] = v_MCRHN * g * rho_A / del_P.
$$ v_{MCRHNB} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.876953728}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.876953728 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Nitrate from MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.876953728, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MCRHNB} = \frac{v_{MCRHNB} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MCRHNB dry deposition rate [1/s] = v_MCRHNB * g * rho_A / del_P.
$$ v_{MCRHP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.582183808}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.582183808 + \frac{1.0}{566.6666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{15.000000000000002} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Hydroxy-hydroperoxy-methacrolein dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.582183808, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MCRHP} = \frac{v_{MCRHP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MCRHP dry deposition rate [1/s] = v_MCRHP * g * rho_A / del_P.
$$ v_{MCT} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.623555974}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.623555974 + \frac{1.0}{100.14}} + \frac{1.0}{\frac{r_{lu\,val}}{1.0042} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{420.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{420.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Catechols and methyl catechols dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.623555974, Hstar=420.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MCT} = \frac{v_{MCT} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MCT dry deposition rate [1/s] = v_MCT * g * rho_A / del_P.
$$ v_{MENO3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.068072755}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.068072755 + \frac{1.0}{10.000666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{0.10002000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2.0}{100000.0 \cdot r_{clS\,val}} + \frac{0.1}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2.0}{100000.0 \cdot r_{gsS\,val}} + \frac{0.1}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Methyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.068072755, Hstar=2.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MENO3} = \frac{v_{MENO3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MENO3 dry deposition rate [1/s] = v_MENO3 * g * rho_A / del_P.
$$ v_{MGLY} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.000123225}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.000123225 + \frac{1.0}{101.23333333333333}} + \frac{1.0}{\frac{r_{lu\,val}}{1.037} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{3700.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{3700.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Methylglyoxal dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.000123225, Hstar=3700.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MGLY} = \frac{v_{MGLY} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MGLY dry deposition rate [1/s] = v_MGLY * g * rho_A / del_P.
$$ v_{MOH} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.333808586}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.333808586 + \frac{1.0}{100.06766666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00203} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{203.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{203.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Methanol dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.333808586, Hstar=203.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MOH} = \frac{v_{MOH} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MOH dry deposition rate [1/s] = v_MOH * g * rho_A / del_P.
$$ v_{MONITS} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.456856361}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.456856361 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Saturated 1st gen monoterpene organic nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.456856361, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MONITS} = \frac{v_{MONITS} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MONITS dry deposition rate [1/s] = v_MONITS * g * rho_A / del_P.
$$ v_{MONITU} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 3.456856361}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 3.456856361 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Unsaturated 1st gen monoterpene organic nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.456856361, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MONITU} = \frac{v_{MONITU} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MONITU dry deposition rate [1/s] = v_MONITU * g * rho_A / del_P.
$$ v_{MPAN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.857497296}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.857497296 + \frac{1.0}{100.00057333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{1.0000172} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1.72}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1.72}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxymethacroyl nitrate (PMN) dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857497296, Hstar=1.72, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MPAN} = \frac{v_{MPAN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MPAN dry deposition rate [1/s] = v_MPAN * g * rho_A / del_P.
$$ v_{MTPA} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.750196241}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.750196241 + \frac{1.0}{1.6333333333333335 \times 10^{-5}}} + \frac{1.0}{\frac{r_{lu\,val}}{4.900000000000001 \times 10^{-7}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{0.049} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{0.049} + correction}}, 10.0\right), 9999.0\right)} $$a-pinene, b-pinene, sabinene, carene dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.750196241, Hstar=0.049, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MTPA} = \frac{v_{MTPA} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MTPA dry deposition rate [1/s] = v_MTPA * g * rho_A / del_P.
$$ v_{MTPO} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.750196241}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.750196241 + \frac{1.0}{1.6333333333333335 \times 10^{-5}}} + \frac{1.0}{\frac{r_{lu\,val}}{4.900000000000001 \times 10^{-7}} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{0.049} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{0.049} + correction}}, 10.0\right), 9999.0\right)} $$Terpinene, terpinolene, myrcene, ocimene, other monoterpenes dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.750196241, Hstar=0.049, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MTPO} = \frac{v_{MTPO} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MTPO dry deposition rate [1/s] = v_MTPO * g * rho_A / del_P.
$$ v_{MVK} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.972456898}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.972456898 + \frac{1.0}{100.01466666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00044} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{44.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{44.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Methyl vinyl ketone dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.972456898, Hstar=44.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MVK} = \frac{v_{MVK} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MVK dry deposition rate [1/s] = v_MVK * g * rho_A / del_P.
$$ v_{MVKDH} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.415699025}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.415699025 + \frac{1.0}{566.6666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{15.000000000000002} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$dihydroxy-MVK dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.415699025, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MVKDH} = \frac{v_{MVKDH} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MVKDH dry deposition rate [1/s] = v_MVKDH * g * rho_A / del_P.
$$ v_{MVKHC} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.380632525}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.380632525 + \frac{1.0}{566.6666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{15.000000000000002} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$MVK hydroxy-carbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MVKHC} = \frac{v_{MVKHC} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MVKHC dry deposition rate [1/s] = v_MVKHC * g * rho_A / del_P.
$$ v_{MVKHCB} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.380632525}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.380632525 + \frac{1.0}{566.6666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{15.000000000000002} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$MVK hydroxy-carbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MVKHCB} = \frac{v_{MVKHCB} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MVKHCB dry deposition rate [1/s] = v_MVKHCB * g * rho_A / del_P.
$$ v_{MVKHP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.582183808}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.582183808 + \frac{1.0}{566.6666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{15.000000000000002} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$MVK hydroxy-hydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.582183808, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MVKHP} = \frac{v_{MVKHP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MVKHP dry deposition rate [1/s] = v_MVKHP * g * rho_A / del_P.
$$ v_{MVKN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.877050197}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.877050197 + \frac{1.0}{766.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{21.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2000000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Nitrate from MVK dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.877050197, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MVKN} = \frac{v_{MVKN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MVKN dry deposition rate [1/s] = v_MVKN * g * rho_A / del_P.
$$ v_{MVKPC} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.560380085}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.560380085 + \frac{1.0}{566.6666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{15.000000000000002} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1400000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$MVK hydroperoxy-carbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560380085, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{MVKPC} = \frac{v_{MVKPC} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$MVKPC dry deposition rate [1/s] = v_MVKPC * g * rho_A / del_P.
$$ v_{N2O5} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.44867743}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.44867743 + \frac{1.0}{33333333333.333332}} + \frac{1.0}{\frac{r_{lu\,val}}{1000000000.0000001} + correction} + \frac{1.0}{rdc + \frac{100000.0 \cdot r_{clS\,val}}{100000000000000.0} + correction} + \frac{1.0}{r_{ac\,val} + \frac{100000.0 \cdot r_{gsS\,val}}{100000000000000.0} + correction}}, 10.0\right), 9999.0\right)} $$Dinitrogen pentoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.44867743, Hstar=100000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{N2O5} = \frac{v_{N2O5} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$N2O5 dry deposition rate [1/s] = v_N2O5 * g * rho_A / del_P.
$$ v_{NO2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.598106097}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.598106097 + \frac{1.0}{10.000003333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{0.10000010000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{0.01}{100000.0 \cdot r_{clS\,val}} + \frac{0.1}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{0.01}{100000.0 \cdot r_{gsS\,val}} + \frac{0.1}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Nitrogen dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.598106097, Hstar=0.01, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{NO2} = \frac{v_{NO2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$NO2 dry deposition rate [1/s] = v_NO2 * g * rho_A / del_P.
$$ v_{NPHEN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.77880881}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.77880881 + \frac{1.0}{100.76666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{1.023} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2300.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2300.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Nitrophenols dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.77880881, Hstar=2300.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{NPHEN} = \frac{v_{NPHEN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$NPHEN dry deposition rate [1/s] = v_NPHEN * g * rho_A / del_P.
$$ v_{NPRNO3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.415469232}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.415469232 + \frac{1.0}{10.000366666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{0.100011} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1.1}{100000.0 \cdot r_{clS\,val}} + \frac{0.1}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1.1}{100000.0 \cdot r_{gsS\,val}} + \frac{0.1}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$n-propyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.415469232, Hstar=1.1, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{NPRNO3} = \frac{v_{NPRNO3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$NPRNO3 dry deposition rate [1/s] = v_NPRNO3 * g * rho_A / del_P.
$$ v_{O3} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.632300488}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.632300488 + \frac{1.0}{100.00000333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{1.0000001} + correction} + \frac{1.0}{rdc + r_{clO\,val} + correction} + \frac{1.0}{r_{ac\,val} + r_{gsO\,val} + correction}}, 10.0\right), 9999.0\right)} $$Ozone dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.632300488, Hstar=0.01, Fo=1.0. isSO2=False, isO3=True. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{O3} = \frac{v_{O3} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$O3 dry deposition rate [1/s] = v_O3 * g * rho_A / del_P.
$$ v_{PAN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.592267569}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.592267569 + \frac{1.0}{100.0012}} + \frac{1.0}{\frac{r_{lu\,val}}{1.000036} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{3.6}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{3.6}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxyacetyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.592267569, Hstar=3.6, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{PAN} = \frac{v_{PAN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$PAN dry deposition rate [1/s] = v_PAN * g * rho_A / del_P.
$$ v_{PHEN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.285585007}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.285585007 + \frac{1.0}{100.93333333333334}} + \frac{1.0}{\frac{r_{lu\,val}}{1.028} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{2800.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{2800.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Phenol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.285585007, Hstar=2800.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{PHEN} = \frac{v_{PHEN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$PHEN dry deposition rate [1/s] = v_PHEN * g * rho_A / del_P.
$$ v_{PP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.261168272}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.261168272 + \frac{1.0}{100.098}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00294} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxide from PO2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.261168272, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{PP} = \frac{v_{PP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$PP dry deposition rate [1/s] = v_PP * g * rho_A / del_P.
$$ v_{PPN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.738262115}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.738262115 + \frac{1.0}{100.0012}} + \frac{1.0}{\frac{r_{lu\,val}}{1.000036} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{3.6}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{3.6}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Lumped peroxypropionyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.738262115, Hstar=3.6, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{PPN} = \frac{v_{PPN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$PPN dry deposition rate [1/s] = v_PPN * g * rho_A / del_P.
$$ v_{PROPNN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.570981223}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.570981223 + \frac{1.0}{266.66666666666663}} + \frac{1.0}{\frac{r_{lu\,val}}{6.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{500000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{500000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Propanone nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.570981223, Hstar=500000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{PROPNN} = \frac{v_{PROPNN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$PROPNN dry deposition rate [1/s] = v_PROPNN * g * rho_A / del_P.
$$ v_{PRPN} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.758760869}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.758760869 + \frac{1.0}{100.098}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00294} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxide from PRN1 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.758760869, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{PRPN} = \frac{v_{PRPN} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$PRPN dry deposition rate [1/s] = v_PRPN * g * rho_A / del_P.
$$ v_{PYAC} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.211024169}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.211024169 + \frac{1.0}{204.66666666666669}} + \frac{1.0}{\frac{r_{lu\,val}}{4.140000000000001} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{314000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{314000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Pyruvic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.211024169, Hstar=314000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{PYAC} = \frac{v_{PYAC} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$PYAC dry deposition rate [1/s] = v_PYAC * g * rho_A / del_P.
$$ v_{R4N2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.571197117}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.571197117 + \frac{1.0}{105.66666666666667}} + \frac{1.0}{\frac{r_{lu\,val}}{1.17} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{17000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{17000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Lumped alkyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.571197117, Hstar=17000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{R4N2} = \frac{v_{R4N2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$R4N2 dry deposition rate [1/s] = v_R4N2 * g * rho_A / del_P.
$$ v_{R4P} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.236857245}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.236857245 + \frac{1.0}{100.098}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00294} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxide from R4O2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.236857245, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{R4P} = \frac{v_{R4P} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$R4P dry deposition rate [1/s] = v_R4P * g * rho_A / del_P.
$$ v_{RA3P} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.055418934}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.055418934 + \frac{1.0}{100.098}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00294} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxide from A3O2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.055418934, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{RA3P} = \frac{v_{RA3P} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$RA3P dry deposition rate [1/s] = v_RA3P * g * rho_A / del_P.
$$ v_{RB3P} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.055418934}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.055418934 + \frac{1.0}{100.098}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00294} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxide from B3O2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.055418934, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{RB3P} = \frac{v_{RB3P} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$RB3P dry deposition rate [1/s] = v_RB3P * g * rho_A / del_P.
$$ v_{RIPA} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.560922022}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.560922022 + \frac{1.0}{666.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{18.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1700000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1700000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$1,2-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{RIPA} = \frac{v_{RIPA} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$RIPA dry deposition rate [1/s] = v_RIPA * g * rho_A / del_P.
$$ v_{RIPB} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.560922022}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.560922022 + \frac{1.0}{666.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{18.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1700000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1700000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$4,3-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{RIPB} = \frac{v_{RIPB} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$RIPB dry deposition rate [1/s] = v_RIPB * g * rho_A / del_P.
$$ v_{RIPC} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.560922022}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.560922022 + \frac{1.0}{666.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{18.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1700000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1700000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$d-1,4-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{RIPC} = \frac{v_{RIPC} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$RIPC dry deposition rate [1/s] = v_RIPC * g * rho_A / del_P.
$$ v_{RIPD} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.560922022}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.560922022 + \frac{1.0}{666.6666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{18.0} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1700000.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1700000.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$d-4,1-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{RIPD} = \frac{v_{RIPD} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$RIPD dry deposition rate [1/s] = v_RIPD * g * rho_A / del_P.
$$ v_{RP} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.236236775}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.236236775 + \frac{1.0}{100.098}} + \frac{1.0}{\frac{r_{lu\,val}}{1.00294} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{294.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$Peroxide from RCO3 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.236236775, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{RP} = \frac{v_{RP} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$RP dry deposition rate [1/s] = v_RP * g * rho_A / del_P.
$$ v_{SO2} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 1.885407166}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 1.885407166 + \frac{1.0}{33.333333333333336}} + \frac{1.0}{\frac{r_{lu\,val}}{1.0} + correction} + \frac{1.0}{rdc + r_{clS\,val} + correction} + \frac{1.0}{r_{ac\,val} + r_{gsS\,val} + correction}}, 10.0\right), 9999.0\right)} $$Sulfur dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.885407166, Hstar=100000.0, Fo=0.0. isSO2=True, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{SO2} = \frac{v_{SO2} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$SO2 dry deposition rate [1/s] = v_SO2 * g * rho_A / del_P.
$$ v_{RCOOH} = \frac{\mathrm{ifelse}\left(lev = 1, 1, 0\right)}{Ra + \frac{5.0 \cdot \frac{mu_{air} \cdot 2.027959554}{rho_{A} \cdot Dh2o}^{\frac{2.0}{3.0}}}{u_{star}} + \mathrm{min}\left(\mathrm{max}\left(\frac{1.0}{\frac{1.0}{rs \cdot 2.027959554 + \frac{1.0}{100.50666666666666}} + \frac{1.0}{\frac{r_{lu\,val}}{1.0152} + correction} + \frac{1.0}{rdc + \frac{1.0}{\frac{1520.0}{100000.0 \cdot r_{clS\,val}} + \frac{1.0}{r_{clO\,val}}} + correction} + \frac{1.0}{r_{ac\,val} + \frac{1.0}{\frac{1520.0}{100000.0 \cdot r_{gsS\,val}} + \frac{1.0}{r_{gsO\,val}}} + correction}}, 10.0\right), 9999.0\right)} $$> C2 organic acids dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.027959554, Hstar=1520.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas).
$$ k_{RCOOH} = \frac{v_{RCOOH} \cdot g_{const} \cdot rho_{A}}{del_{P}} $$RCOOH dry deposition rate [1/s] = v_RCOOH * g * rho_A / del_P.
Raw .esm
Raw .esm JSON (this component)
{
"expression_template_imports": [
{
"ref": "./wesley1989/resistance_templates.esm"
}
],
"reference": {
"citation": "Wesely, M. L. (1989). Parameterization of surface resistances to gaseous dry deposition in regional-scale numerical models. Atmospheric Environment 23(6), 1293-1304. doi:10.1016/0004-6981(89)90153-4",
"notes": "source_ref: AtmosphericDeposition.jl@e4468c79c8dd4aae88646cd16d6bcf290874742c:src/dry_deposition.jl:323\n\nUpstream `DryDepositionGas` is an MTK builder that declares 12 scalar @parameters (season, landuse, z, del_P, z_0, u_star, L, rho_A, G, Ts, theta, lev) and builds equations depvel .~ DryDepGas.(...) and deprate .~ depvel .* g .* rho_A ./ del_P for 132 gas species. The species GasData (Dh2oPerDx, Hstar, Fo) are constants from src/wesley1989.jl. rain=false and dew=false are hardcoded in the builder.\n\nFor each species i, DryDepGas computes:\n v_i = ifelse(lev==1,1,0) / (Ra + Rb_i + Rc_i)\n Ra = ra(z, z0, u_star, L) [aerodynamic resistance, shared]\n Rb_i = 5 * Sc_i^(2/3) / u_star [quasi-laminar, Seinfeld & Pandis Eq. 19.17]\n Sc_i = mu(Ts) / (rho_A * dH2O(Ts) / Dh2oPerDx_i) [Schmidt number]\n Rc_i = WesleySurfaceResistance(GasData_i, G, Ts-273, theta, season, landuse, false, false, isSO2_i, isO3_i)\n\nMigration approach: Ra, mu_air, Dh2o, and the 7 Wesley table lookups plus rs, rdc, correction are computed as shared observed variables. For each species, species-specific parts (Rb, Rc) are inlined into the v_* expression with GasData constants substituted. Since rain=false and dew=false, rlux=rlux_dry for all species and the rs rain/dew multiplier=1.\n\nSO2 (species 131): isSO2=true → rclx=r_clS_val, rgsx=r_gsS_val.\nO3 (species 114): isO3=true → rclx=r_clO_val, rgsx=r_gsO_val.\nAll other species: rclx=1/(Hstar/(1e5*r_clS)+Fo/r_clO), rgsx=1/(Hstar/(1e5*r_gsS)+Fo/r_gsO).\n\nTemperature convention: Ts parameter is in Kelvin (default 298K). mu_air and Dh2o use Ts directly (Kelvin). Wesley surface resistance uses Ts_c = Ts - 273 (Celsius), consistent with the upstream (Ts * T_unitless - 273) conversion in DryDepGas.\n\nNeutral-stability: L=0 is the neutral-stability sentinel. zeta and zeta_0 are reformulated as z*L/(L^2+1e-300) and z0*L/(L^2+1e-300) to avoid division by zero, per dry_aerosol.esm convention.\n\nTolerance (model-level rel=1e-6): closed-form algebraic system; interp.linear table lookups land on integer knots (zero blend weight), subsequent arithmetic accumulates ~1e-13 float64 round-off. rel=1e-6 provides comfortable headroom."
},
"tolerance": {
"rel": 1e-06
},
"variables": {
"season": {
"type": "parameter",
"units": "1",
"default": 1,
"description": "Wesley (1989) season index (1=midsummer, 2=autumn, 3=late autumn, 4=winter, 5=transitional). Upstream parameter `season`, default wesleyMidsummer=1."
},
"landuse": {
"type": "parameter",
"units": "1",
"default": 1,
"description": "Wesley (1989) land-use index (1=urban, 2=agricultural, 3=range, 4=deciduous, 5=coniferous, 6=mixed forest, 7=water, 8=barren, 9=wetland, 10=range/ag, 11=rocky shrubs). Upstream parameter `landuse`, default wesleyUrban=1."
},
"z": {
"type": "parameter",
"units": "m",
"default": 60.0,
"description": "Height from ground to mid-point of level 1 [m]."
},
"del_P": {
"type": "parameter",
"units": "Pa",
"default": 1520.0,
"description": "Pressure thickness of atmospheric level 1 [Pa]."
},
"z0": {
"type": "parameter",
"units": "m",
"default": 0.04,
"description": "Surface roughness length [m]. Upstream z_0."
},
"u_star": {
"type": "parameter",
"units": "m/s",
"default": 0.44,
"description": "Friction velocity [m/s]."
},
"L": {
"type": "parameter",
"units": "m",
"default": 0.0,
"description": "Monin-Obukhov length [m]. L=0 is the neutral-stability sentinel."
},
"rho_A": {
"type": "parameter",
"units": "kg/m^3",
"default": 1.2,
"description": "Air density [kg/m^3]. Upstream rho_A."
},
"G": {
"type": "parameter",
"units": "W/m^2",
"default": 300.0,
"description": "Solar irradiation [W/m^2]."
},
"Ts": {
"type": "parameter",
"units": "K",
"default": 298.0,
"description": "Surface air temperature [K]. Converted to Celsius (Ts_c = Ts - 273) for Wesley surface resistance."
},
"theta": {
"type": "parameter",
"units": "1",
"default": 0.0,
"description": "Slope of the local terrain [radians]. Upstream theta."
},
"lev": {
"type": "parameter",
"units": "1",
"default": 1,
"description": "Atmospheric level index. Deposition is active only when lev==1."
},
"g_const": {
"type": "parameter",
"units": "m/s^2",
"default": 9.81,
"description": "Gravitational acceleration [m/s^2]. Upstream @constants g."
},
"kappa": {
"type": "parameter",
"units": "1",
"default": 0.4,
"description": "Von Karman constant. Upstream @constants kappa."
},
"Ts_c": {
"type": "unknown",
"units": "degC",
"description": "Surface temperature in Celsius, Ts_c = Ts - 273. Passed to WesleySurfaceResistance (which uses Celsius)."
},
"L2_eps": {
"type": "unknown",
"units": "m^2",
"description": "L^2 + 1e-300 denominator used to regularize division by L at neutral stability."
},
"zeta": {
"type": "unknown",
"units": "1",
"description": "Monin-Obukhov stability parameter z/L (regularized to avoid division by zero at L=0)."
},
"zeta_0": {
"type": "unknown",
"units": "1",
"description": "Monin-Obukhov stability parameter z0/L (regularized)."
},
"ra_neutral_stable": {
"type": "unknown",
"units": "s/m",
"description": "Aerodynamic resistance for neutral/stable conditions (zeta >= 0). Stable: adds 4.7*(zeta-zeta_0) term."
},
"i_unstable": {
"type": "unknown",
"units": "1",
"description": "Guard flag: 1 when zeta<0 (unstable), 0 otherwise. Prevents domain error in eta calculation."
},
"eta_0": {
"type": "unknown",
"units": "1",
"description": "Stability correction factor eta_0 = (1 - 15*zeta_0*i_unstable)^(1/4) for unstable regime."
},
"eta": {
"type": "unknown",
"units": "1",
"description": "Stability correction factor eta = (1 - 15*zeta*i_unstable)^(1/4) for unstable regime."
},
"Ra": {
"type": "unknown",
"units": "s/m",
"description": "Aerodynamic resistance Ra [s/m] (Seinfeld & Pandis 2006 Eq. 19.13-19.14). Three stability regimes: unstable (zeta<0), neutral (zeta=0), stable (zeta>0)."
},
"mu_air": {
"type": "unknown",
"units": "kg/(m*s)",
"description": "Dynamic viscosity of air [kg/(m*s)] (mu(Ts), Ts in Kelvin)."
},
"Dh2o": {
"type": "unknown",
"units": "m^2/s",
"description": "Molecular diffusivity of water vapor in air [m^2/s] (dH2O(Ts), Ts in Kelvin)."
},
"table_index": {
"type": "unknown",
"units": "1",
"description": "1-D table index into the 5x11 Wesley (1989) resistance tables, column-major flattened: (iLandUse-1)*5 + iSeason."
},
"r_i_val": {
"type": "unknown",
"units": "s/m",
"description": "Wesley (1989) minimum stomatal resistance r_i [s/m] for the current season/land-use, looked up from the 5x11 r_i table (column-major, axis [1..55]) at table_index."
},
"r_lu_val": {
"type": "unknown",
"units": "s/m",
"description": "Wesley (1989) cuticle resistance r_lu [s/m] for the current season/land-use."
},
"r_ac_val": {
"type": "unknown",
"units": "s/m",
"description": "Wesley (1989) lower-canopy/ground aerodynamic resistance r_ac [s/m]."
},
"r_gsS_val": {
"type": "unknown",
"units": "s/m",
"description": "Wesley (1989) SO2 ground/soil resistance r_gsS [s/m]."
},
"r_gsO_val": {
"type": "unknown",
"units": "s/m",
"description": "Wesley (1989) O3 ground/soil resistance r_gsO [s/m]."
},
"r_clS_val": {
"type": "unknown",
"units": "s/m",
"description": "Wesley (1989) SO2 lower-canopy resistance r_clS [s/m]."
},
"r_clO_val": {
"type": "unknown",
"units": "s/m",
"description": "Wesley (1989) O3 lower-canopy resistance r_clO [s/m]."
},
"rs": {
"type": "unknown",
"units": "s/m",
"description": "Stomatal resistance rs [s/m] (Wesley 1989 Eq. 3), the wesely_stomatal_resistance template of wesley1989/resistance_templates.esm applied to Ts_c (Celsius). With rain=dew=false the wet-surface multiplier=1. Capped at 1e25 s/m when Ts_c <= 0.1 degC."
},
"rdc": {
"type": "unknown",
"units": "s/m",
"description": "Lower-canopy aerodynamic resistance rdc [s/m] (Wesley 1989). Independent of species."
},
"correction": {
"type": "unknown",
"units": "s/m",
"description": "Cold-temperature correction for all surface resistances: 1000 s/m * exp(-Ts_c/(1 degC) - 4) when Ts_c < 0 degC, else 0. Defined by the wesely_cold_correction template of wesley1989/resistance_templates.esm."
},
"v_NO": {
"type": "unknown",
"units": "m/s",
"description": "NO dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.3, Hstar=0.003, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_NO": {
"type": "unknown",
"units": "1/s",
"description": "NO dry deposition rate [1/s] = v_NO * g * rho_A / del_P."
},
"v_Ald": {
"type": "unknown",
"units": "m/s",
"description": "Acetaldehyde (aldehyde class) dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=15.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_Ald": {
"type": "unknown",
"units": "1/s",
"description": "Ald dry deposition rate [1/s] = v_Ald * g * rho_A / del_P."
},
"v_HCHO": {
"type": "unknown",
"units": "m/s",
"description": "Formaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.3, Hstar=6000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HCHO": {
"type": "unknown",
"units": "1/s",
"description": "HCHO dry deposition rate [1/s] = v_HCHO * g * rho_A / del_P."
},
"v_OP": {
"type": "unknown",
"units": "m/s",
"description": "Methyl hydroperoxide (organic peroxide class) dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=240.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_OP": {
"type": "unknown",
"units": "1/s",
"description": "OP dry deposition rate [1/s] = v_OP * g * rho_A / del_P."
},
"v_PAA": {
"type": "unknown",
"units": "m/s",
"description": "Peroxyacetyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.0, Hstar=540.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_PAA": {
"type": "unknown",
"units": "1/s",
"description": "PAA dry deposition rate [1/s] = v_PAA * g * rho_A / del_P."
},
"v_ORA": {
"type": "unknown",
"units": "m/s",
"description": "Formic acid (organic acid class) dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=4000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ORA": {
"type": "unknown",
"units": "1/s",
"description": "ORA dry deposition rate [1/s] = v_ORA * g * rho_A / del_P."
},
"v_NH3": {
"type": "unknown",
"units": "m/s",
"description": "NH3 dry deposition velocity [m/s]. GasData: Dh2oPerDx=0.97, Hstar=20000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_NH3": {
"type": "unknown",
"units": "1/s",
"description": "NH3 dry deposition rate [1/s] = v_NH3 * g * rho_A / del_P."
},
"v_HNO2": {
"type": "unknown",
"units": "m/s",
"description": "Nitrous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.6, Hstar=100000.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HNO2": {
"type": "unknown",
"units": "1/s",
"description": "HNO2 dry deposition rate [1/s] = v_HNO2 * g * rho_A / del_P."
},
"v_ACET": {
"type": "unknown",
"units": "m/s",
"description": "Acetone dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.795685104, Hstar=100000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ACET": {
"type": "unknown",
"units": "1/s",
"description": "ACET dry deposition rate [1/s] = v_ACET * g * rho_A / del_P."
},
"v_ACTA": {
"type": "unknown",
"units": "m/s",
"description": "Acetic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.825879681, Hstar=4100.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ACTA": {
"type": "unknown",
"units": "1/s",
"description": "ACTA dry deposition rate [1/s] = v_ACTA * g * rho_A / del_P."
},
"v_ALD2": {
"type": "unknown",
"units": "m/s",
"description": "Acetaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.563873924, Hstar=11.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ALD2": {
"type": "unknown",
"units": "1/s",
"description": "ALD2 dry deposition rate [1/s] = v_ALD2 * g * rho_A / del_P."
},
"v_AROMP4": {
"type": "unknown",
"units": "m/s",
"description": "Generic C4 product of aromatics dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.943968688, Hstar=410000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_AROMP4": {
"type": "unknown",
"units": "1/s",
"description": "AROMP4 dry deposition rate [1/s] = v_AROMP4 * g * rho_A / del_P."
},
"v_AROMP5": {
"type": "unknown",
"units": "m/s",
"description": "C5 unsaturated dicarbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.333533261, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_AROMP5": {
"type": "unknown",
"units": "1/s",
"description": "AROMP5 dry deposition rate [1/s] = v_AROMP5 * g * rho_A / del_P."
},
"v_ATOOH": {
"type": "unknown",
"units": "m/s",
"description": "ATO2 peroxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.236236775, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ATOOH": {
"type": "unknown",
"units": "1/s",
"description": "ATOOH dry deposition rate [1/s] = v_ATOOH * g * rho_A / del_P."
},
"v_BALD": {
"type": "unknown",
"units": "m/s",
"description": "Benzaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427046586, Hstar=38.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_BALD": {
"type": "unknown",
"units": "1/s",
"description": "BALD dry deposition rate [1/s] = v_BALD * g * rho_A / del_P."
},
"v_BENZP": {
"type": "unknown",
"units": "m/s",
"description": "Phenyl hydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.472252775, Hstar=2900.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_BENZP": {
"type": "unknown",
"units": "1/s",
"description": "BENZP dry deposition rate [1/s] = v_BENZP * g * rho_A / del_P."
},
"v_Br2": {
"type": "unknown",
"units": "m/s",
"description": "Molecular Bromine dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.978296144, Hstar=0.76, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_Br2": {
"type": "unknown",
"units": "1/s",
"description": "Br2 dry deposition rate [1/s] = v_Br2 * g * rho_A / del_P."
},
"v_BrCl": {
"type": "unknown",
"units": "m/s",
"description": "Bromine chloride dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.531491424, Hstar=0.97, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_BrCl": {
"type": "unknown",
"units": "1/s",
"description": "BrCl dry deposition rate [1/s] = v_BrCl * g * rho_A / del_P."
},
"v_BrNO3": {
"type": "unknown",
"units": "m/s",
"description": "Bromine nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.806635356, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_BrNO3": {
"type": "unknown",
"units": "1/s",
"description": "BrNO3 dry deposition rate [1/s] = v_BrNO3 * g * rho_A / del_P."
},
"v_BZCO3H": {
"type": "unknown",
"units": "m/s",
"description": "Perbenzoic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.768903222, Hstar=24000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_BZCO3H": {
"type": "unknown",
"units": "1/s",
"description": "BZCO3H dry deposition rate [1/s] = v_BZCO3H * g * rho_A / del_P."
},
"v_BZPAN": {
"type": "unknown",
"units": "m/s",
"description": "Peroxybenzoylnitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.188213391, Hstar=70.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_BZPAN": {
"type": "unknown",
"units": "1/s",
"description": "BZPAN dry deposition rate [1/s] = v_BZPAN * g * rho_A / del_P."
},
"v_CH2O": {
"type": "unknown",
"units": "m/s",
"description": "Formaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.291091904, Hstar=3000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_CH2O": {
"type": "unknown",
"units": "1/s",
"description": "CH2O dry deposition rate [1/s] = v_CH2O * g * rho_A / del_P."
},
"v_Cl2": {
"type": "unknown",
"units": "m/s",
"description": "Molecular chlorine dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.983821576, Hstar=0.092, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_Cl2": {
"type": "unknown",
"units": "1/s",
"description": "Cl2 dry deposition rate [1/s] = v_Cl2 * g * rho_A / del_P."
},
"v_ClNO2": {
"type": "unknown",
"units": "m/s",
"description": "Nitryl chloride dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.126302433, Hstar=0.045, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ClNO2": {
"type": "unknown",
"units": "1/s",
"description": "ClNO2 dry deposition rate [1/s] = v_ClNO2 * g * rho_A / del_P."
},
"v_ClNO3": {
"type": "unknown",
"units": "m/s",
"description": "Chlorine nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.325789543, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ClNO3": {
"type": "unknown",
"units": "1/s",
"description": "ClNO3 dry deposition rate [1/s] = v_ClNO3 * g * rho_A / del_P."
},
"v_ClO": {
"type": "unknown",
"units": "m/s",
"description": "Chlorine monoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.689943485, Hstar=0.7, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ClO": {
"type": "unknown",
"units": "1/s",
"description": "ClO dry deposition rate [1/s] = v_ClO * g * rho_A / del_P."
},
"v_ClOO": {
"type": "unknown",
"units": "m/s",
"description": "Chlorine dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.934953215, Hstar=1.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ClOO": {
"type": "unknown",
"units": "1/s",
"description": "ClOO dry deposition rate [1/s] = v_ClOO * g * rho_A / del_P."
},
"v_CSL": {
"type": "unknown",
"units": "m/s",
"description": "Cresols dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.450037177, Hstar=420.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_CSL": {
"type": "unknown",
"units": "1/s",
"description": "CSL dry deposition rate [1/s] = v_CSL * g * rho_A / del_P."
},
"v_EOH": {
"type": "unknown",
"units": "m/s",
"description": "Ethanol dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.599147774, Hstar=190.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_EOH": {
"type": "unknown",
"units": "1/s",
"description": "EOH dry deposition rate [1/s] = v_EOH * g * rho_A / del_P."
},
"v_ETHLN": {
"type": "unknown",
"units": "m/s",
"description": "Ethanol nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.414894654, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ETHLN": {
"type": "unknown",
"units": "1/s",
"description": "ETHLN dry deposition rate [1/s] = v_ETHLN * g * rho_A / del_P."
},
"v_ETHN": {
"type": "unknown",
"units": "m/s",
"description": "hydroxy-nitrooxy-ethane dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.437885999, Hstar=39000.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ETHN": {
"type": "unknown",
"units": "1/s",
"description": "ETHN dry deposition rate [1/s] = v_ETHN * g * rho_A / del_P."
},
"v_ETHP": {
"type": "unknown",
"units": "m/s",
"description": "hydroxy-hydroperoxy-ethane dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.081716485, Hstar=650000.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ETHP": {
"type": "unknown",
"units": "1/s",
"description": "ETHP dry deposition rate [1/s] = v_ETHP * g * rho_A / del_P."
},
"v_ETNO3": {
"type": "unknown",
"units": "m/s",
"description": "Ethyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.248490219, Hstar=1.6, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ETNO3": {
"type": "unknown",
"units": "1/s",
"description": "ETNO3 dry deposition rate [1/s] = v_ETNO3 * g * rho_A / del_P."
},
"v_ETP": {
"type": "unknown",
"units": "m/s",
"description": "Ethylhydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.856330695, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ETP": {
"type": "unknown",
"units": "1/s",
"description": "ETP dry deposition rate [1/s] = v_ETP * g * rho_A / del_P."
},
"v_GLYC": {
"type": "unknown",
"units": "m/s",
"description": "Glycoaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.825879681, Hstar=41000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_GLYC": {
"type": "unknown",
"units": "1/s",
"description": "GLYC dry deposition rate [1/s] = v_GLYC * g * rho_A / del_P."
},
"v_GLYX": {
"type": "unknown",
"units": "m/s",
"description": "Glyoxal dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.794912135, Hstar=360000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_GLYX": {
"type": "unknown",
"units": "1/s",
"description": "GLYX dry deposition rate [1/s] = v_GLYX * g * rho_A / del_P."
},
"v_H2O2": {
"type": "unknown",
"units": "m/s",
"description": "Hydrogen peroxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.374189565, Hstar=50000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_H2O2": {
"type": "unknown",
"units": "1/s",
"description": "H2O2 dry deposition rate [1/s] = v_H2O2 * g * rho_A / del_P."
},
"v_HAC": {
"type": "unknown",
"units": "m/s",
"description": "Hydroxyacetone dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.027822692, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HAC": {
"type": "unknown",
"units": "1/s",
"description": "HAC dry deposition rate [1/s] = v_HAC * g * rho_A / del_P."
},
"v_HBr": {
"type": "unknown",
"units": "m/s",
"description": "Hypobromic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.119242195, Hstar=7100000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HBr": {
"type": "unknown",
"units": "1/s",
"description": "HBr dry deposition rate [1/s] = v_HBr * g * rho_A / del_P."
},
"v_HC5A": {
"type": "unknown",
"units": "m/s",
"description": "isoprene-4,1-hydroxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.357553733, Hstar=7800.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HC5A": {
"type": "unknown",
"units": "1/s",
"description": "HC5A dry deposition rate [1/s] = v_HC5A * g * rho_A / del_P."
},
"v_HCl": {
"type": "unknown",
"units": "m/s",
"description": "Hydrochloric acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.422421336, Hstar=20000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HCl": {
"type": "unknown",
"units": "1/s",
"description": "HCl dry deposition rate [1/s] = v_HCl * g * rho_A / del_P."
},
"v_HCOOH": {
"type": "unknown",
"units": "m/s",
"description": "Formic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.598453398, Hstar=8900.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HCOOH": {
"type": "unknown",
"units": "1/s",
"description": "HCOOH dry deposition rate [1/s] = v_HCOOH * g * rho_A / del_P."
},
"v_HI": {
"type": "unknown",
"units": "m/s",
"description": "Hydrogen iodide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.664598268, Hstar=2.35e+16, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HI": {
"type": "unknown",
"units": "1/s",
"description": "HI dry deposition rate [1/s] = v_HI * g * rho_A / del_P."
},
"v_HMHP": {
"type": "unknown",
"units": "m/s",
"description": "Hydroxymethyl hydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.885554366, Hstar=1300000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HMHP": {
"type": "unknown",
"units": "1/s",
"description": "HMHP dry deposition rate [1/s] = v_HMHP * g * rho_A / del_P."
},
"v_HMML": {
"type": "unknown",
"units": "m/s",
"description": "hydroxymethyl-methyl-a-lactone dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=120000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HMML": {
"type": "unknown",
"units": "1/s",
"description": "HMML dry deposition rate [1/s] = v_HMML * g * rho_A / del_P."
},
"v_HNO3": {
"type": "unknown",
"units": "m/s",
"description": "Nitric acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.870183545, Hstar=100000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HNO3": {
"type": "unknown",
"units": "1/s",
"description": "HNO3 dry deposition rate [1/s] = v_HNO3 * g * rho_A / del_P."
},
"v_HOBr": {
"type": "unknown",
"units": "m/s",
"description": "Hypobromous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.319336638, Hstar=1300.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HOBr": {
"type": "unknown",
"units": "1/s",
"description": "HOBr dry deposition rate [1/s] = v_HOBr * g * rho_A / del_P."
},
"v_HOCl": {
"type": "unknown",
"units": "m/s",
"description": "Hypochlorous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.706287613, Hstar=650.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HOCl": {
"type": "unknown",
"units": "1/s",
"description": "HOCl dry deposition rate [1/s] = v_HOCl * g * rho_A / del_P."
},
"v_HOI": {
"type": "unknown",
"units": "m/s",
"description": "Hypoiodous acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.826147328, Hstar=15400.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HOI": {
"type": "unknown",
"units": "1/s",
"description": "HOI dry deposition rate [1/s] = v_HOI * g * rho_A / del_P."
},
"v_HONIT": {
"type": "unknown",
"units": "m/s",
"description": "2nd gen monoterpene organic nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.454607581, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HONIT": {
"type": "unknown",
"units": "1/s",
"description": "HONIT dry deposition rate [1/s] = v_HONIT * g * rho_A / del_P."
},
"v_HPALD1": {
"type": "unknown",
"units": "m/s",
"description": "d-4,1-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HPALD1": {
"type": "unknown",
"units": "1/s",
"description": "HPALD1 dry deposition rate [1/s] = v_HPALD1 * g * rho_A / del_P."
},
"v_HPALD2": {
"type": "unknown",
"units": "m/s",
"description": "d-1,4-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HPALD2": {
"type": "unknown",
"units": "1/s",
"description": "HPALD2 dry deposition rate [1/s] = v_HPALD2 * g * rho_A / del_P."
},
"v_HPALD3": {
"type": "unknown",
"units": "m/s",
"description": "b-2,1-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HPALD3": {
"type": "unknown",
"units": "1/s",
"description": "HPALD3 dry deposition rate [1/s] = v_HPALD3 * g * rho_A / del_P."
},
"v_HPALD4": {
"type": "unknown",
"units": "m/s",
"description": "b-3,4-C5-hydroperoxyaldehyde dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HPALD4": {
"type": "unknown",
"units": "1/s",
"description": "HPALD4 dry deposition rate [1/s] = v_HPALD4 * g * rho_A / del_P."
},
"v_HPETHNL": {
"type": "unknown",
"units": "m/s",
"description": "Hydroperoxy ethanal dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.054743675, Hstar=41000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_HPETHNL": {
"type": "unknown",
"units": "1/s",
"description": "HPETHNL dry deposition rate [1/s] = v_HPETHNL * g * rho_A / del_P."
},
"v_I2": {
"type": "unknown",
"units": "m/s",
"description": "Molecular iodine dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.753403898, Hstar=2.7, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_I2": {
"type": "unknown",
"units": "1/s",
"description": "I2 dry deposition rate [1/s] = v_I2 * g * rho_A / del_P."
},
"v_I2O2": {
"type": "unknown",
"units": "m/s",
"description": "Diiodine dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.983002729, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_I2O2": {
"type": "unknown",
"units": "1/s",
"description": "I2O2 dry deposition rate [1/s] = v_I2O2 * g * rho_A / del_P."
},
"v_I2O3": {
"type": "unknown",
"units": "m/s",
"description": "Diiodine trioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=4.092975165, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_I2O3": {
"type": "unknown",
"units": "1/s",
"description": "I2O3 dry deposition rate [1/s] = v_I2O3 * g * rho_A / del_P."
},
"v_I2O4": {
"type": "unknown",
"units": "m/s",
"description": "Diiodine tetraoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=4.200069126, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_I2O4": {
"type": "unknown",
"units": "1/s",
"description": "I2O4 dry deposition rate [1/s] = v_I2O4 * g * rho_A / del_P."
},
"v_IBr": {
"type": "unknown",
"units": "m/s",
"description": "Iodine monobromide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.388907673, Hstar=24.3, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IBr": {
"type": "unknown",
"units": "1/s",
"description": "IBr dry deposition rate [1/s] = v_IBr * g * rho_A / del_P."
},
"v_ICHE": {
"type": "unknown",
"units": "m/s",
"description": "Isoprene hydroxy-carbonyl-epoxides dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.538935715, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ICHE": {
"type": "unknown",
"units": "1/s",
"description": "ICHE dry deposition rate [1/s] = v_ICHE * g * rho_A / del_P."
},
"v_ICl": {
"type": "unknown",
"units": "m/s",
"description": "Iodine monochloride dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.002889488, Hstar=111.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ICl": {
"type": "unknown",
"units": "1/s",
"description": "ICl dry deposition rate [1/s] = v_ICl * g * rho_A / del_P."
},
"v_ICN": {
"type": "unknown",
"units": "m/s",
"description": "Lumped isoprene carbonyl-nitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.838298642, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ICN": {
"type": "unknown",
"units": "1/s",
"description": "ICN dry deposition rate [1/s] = v_ICN * g * rho_A / del_P."
},
"v_ICPDH": {
"type": "unknown",
"units": "m/s",
"description": "Isoprene dihydroxy hydroperoxycarbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.886969263, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ICPDH": {
"type": "unknown",
"units": "1/s",
"description": "ICPDH dry deposition rate [1/s] = v_ICPDH * g * rho_A / del_P."
},
"v_IDC": {
"type": "unknown",
"units": "m/s",
"description": "Lumped isoprene dicarbonyls dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.333652194, Hstar=40000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IDC": {
"type": "unknown",
"units": "1/s",
"description": "IDC dry deposition rate [1/s] = v_IDC * g * rho_A / del_P."
},
"v_IDCHP": {
"type": "unknown",
"units": "m/s",
"description": "Isoprene dicarbonyl hydroxy dihydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.867483999, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IDCHP": {
"type": "unknown",
"units": "1/s",
"description": "IDCHP dry deposition rate [1/s] = v_IDCHP * g * rho_A / del_P."
},
"v_IDHDP": {
"type": "unknown",
"units": "m/s",
"description": "Isoprene dihydroxy dihydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.055299253, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IDHDP": {
"type": "unknown",
"units": "1/s",
"description": "IDHDP dry deposition rate [1/s] = v_IDHDP * g * rho_A / del_P."
},
"v_IDHPE": {
"type": "unknown",
"units": "m/s",
"description": "Isoprene dihydroxy hydroperoxy epoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.886969263, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IDHPE": {
"type": "unknown",
"units": "1/s",
"description": "IDHPE dry deposition rate [1/s] = v_IDHPE * g * rho_A / del_P."
},
"v_IDN": {
"type": "unknown",
"units": "m/s",
"description": "Lumped isoprene dinitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.265875962, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IDN": {
"type": "unknown",
"units": "1/s",
"description": "IDN dry deposition rate [1/s] = v_IDN * g * rho_A / del_P."
},
"v_IEPOXA": {
"type": "unknown",
"units": "m/s",
"description": "trans-Beta isoprene epoxydiol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427275283, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IEPOXA": {
"type": "unknown",
"units": "1/s",
"description": "IEPOXA dry deposition rate [1/s] = v_IEPOXA * g * rho_A / del_P."
},
"v_IEPOXB": {
"type": "unknown",
"units": "m/s",
"description": "cis-Beta isoprene epoxydiol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427275283, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IEPOXB": {
"type": "unknown",
"units": "1/s",
"description": "IEPOXB dry deposition rate [1/s] = v_IEPOXB * g * rho_A / del_P."
},
"v_IEPOXD": {
"type": "unknown",
"units": "m/s",
"description": "Delta isoprene epoxydiol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.427275283, Hstar=80000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IEPOXD": {
"type": "unknown",
"units": "1/s",
"description": "IEPOXD dry deposition rate [1/s] = v_IEPOXD * g * rho_A / del_P."
},
"v_IHN1": {
"type": "unknown",
"units": "m/s",
"description": "Isoprene-d-4,1-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IHN1": {
"type": "unknown",
"units": "1/s",
"description": "IHN1 dry deposition rate [1/s] = v_IHN1 * g * rho_A / del_P."
},
"v_IHN2": {
"type": "unknown",
"units": "m/s",
"description": "Isoprene-b-1,2-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IHN2": {
"type": "unknown",
"units": "1/s",
"description": "IHN2 dry deposition rate [1/s] = v_IHN2 * g * rho_A / del_P."
},
"v_IHN3": {
"type": "unknown",
"units": "m/s",
"description": "Isoprene-b-4,3-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IHN3": {
"type": "unknown",
"units": "1/s",
"description": "IHN3 dry deposition rate [1/s] = v_IHN3 * g * rho_A / del_P."
},
"v_IHN4": {
"type": "unknown",
"units": "m/s",
"description": "Isoprene-d-4,1-hydroxynitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857982893, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IHN4": {
"type": "unknown",
"units": "1/s",
"description": "IHN4 dry deposition rate [1/s] = v_IHN4 * g * rho_A / del_P."
},
"v_INPB": {
"type": "unknown",
"units": "m/s",
"description": "Lumped b-hydroperoxy isoprene nitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.009352286, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_INPB": {
"type": "unknown",
"units": "1/s",
"description": "INPB dry deposition rate [1/s] = v_INPB * g * rho_A / del_P."
},
"v_INPD": {
"type": "unknown",
"units": "m/s",
"description": "Lumped d-hydroperoxy isoprene nitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.009352286, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_INPD": {
"type": "unknown",
"units": "1/s",
"description": "INPD dry deposition rate [1/s] = v_INPD * g * rho_A / del_P."
},
"v_IONO": {
"type": "unknown",
"units": "m/s",
"description": "Nitryl iodide dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.098058022, Hstar=0.3, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IONO": {
"type": "unknown",
"units": "1/s",
"description": "IONO dry deposition rate [1/s] = v_IONO * g * rho_A / del_P."
},
"v_IONO2": {
"type": "unknown",
"units": "m/s",
"description": "Iodine nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.238224586, Hstar=1e+20, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IONO2": {
"type": "unknown",
"units": "1/s",
"description": "IONO2 dry deposition rate [1/s] = v_IONO2 * g * rho_A / del_P."
},
"v_IPRNO3": {
"type": "unknown",
"units": "m/s",
"description": "Isopropyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.415469232, Hstar=0.79, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_IPRNO3": {
"type": "unknown",
"units": "1/s",
"description": "IPRNO3 dry deposition rate [1/s] = v_IPRNO3 * g * rho_A / del_P."
},
"v_ITCN": {
"type": "unknown",
"units": "m/s",
"description": "lumped isoprene tetrafunctional carbonylnitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.291271958, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ITCN": {
"type": "unknown",
"units": "1/s",
"description": "ITCN dry deposition rate [1/s] = v_ITCN * g * rho_A / del_P."
},
"v_ITHN": {
"type": "unknown",
"units": "m/s",
"description": "Lumped isoprene tetrafunctional hydroxynitrates dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.308262103, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_ITHN": {
"type": "unknown",
"units": "1/s",
"description": "ITHN dry deposition rate [1/s] = v_ITHN * g * rho_A / del_P."
},
"v_LIMO": {
"type": "unknown",
"units": "m/s",
"description": "Limonene dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.750196241, Hstar=0.07, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_LIMO": {
"type": "unknown",
"units": "1/s",
"description": "LIMO dry deposition rate [1/s] = v_LIMO * g * rho_A / del_P."
},
"v_LVOC": {
"type": "unknown",
"units": "m/s",
"description": "Gas-phase low-volatility non-IEPOX product of RIP ox dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.925550478, Hstar=100000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_LVOC": {
"type": "unknown",
"units": "1/s",
"description": "LVOC dry deposition rate [1/s] = v_LVOC * g * rho_A / del_P."
},
"v_MACR": {
"type": "unknown",
"units": "m/s",
"description": "Methacrolein dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.972597602, Hstar=6.5, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MACR": {
"type": "unknown",
"units": "1/s",
"description": "MACR dry deposition rate [1/s] = v_MACR * g * rho_A / del_P."
},
"v_MACR1OOH": {
"type": "unknown",
"units": "m/s",
"description": "Peracid from MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MACR1OOH": {
"type": "unknown",
"units": "1/s",
"description": "MACR1OOH dry deposition rate [1/s] = v_MACR1OOH * g * rho_A / del_P."
},
"v_MAP": {
"type": "unknown",
"units": "m/s",
"description": "Peroxyacetic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.054743675, Hstar=840.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MAP": {
"type": "unknown",
"units": "1/s",
"description": "MAP dry deposition rate [1/s] = v_MAP * g * rho_A / del_P."
},
"v_MCRDH": {
"type": "unknown",
"units": "m/s",
"description": "Dihydroxy-methacrolein dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.404067025, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MCRDH": {
"type": "unknown",
"units": "1/s",
"description": "MCRDH dry deposition rate [1/s] = v_MCRDH * g * rho_A / del_P."
},
"v_MCRENOL": {
"type": "unknown",
"units": "m/s",
"description": "Lumped enols from MVK/MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.186155589, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MCRENOL": {
"type": "unknown",
"units": "1/s",
"description": "MCRENOL dry deposition rate [1/s] = v_MCRENOL * g * rho_A / del_P."
},
"v_MCRHN": {
"type": "unknown",
"units": "m/s",
"description": "Nitrate from MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.876953728, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MCRHN": {
"type": "unknown",
"units": "1/s",
"description": "MCRHN dry deposition rate [1/s] = v_MCRHN * g * rho_A / del_P."
},
"v_MCRHNB": {
"type": "unknown",
"units": "m/s",
"description": "Nitrate from MACR dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.876953728, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MCRHNB": {
"type": "unknown",
"units": "1/s",
"description": "MCRHNB dry deposition rate [1/s] = v_MCRHNB * g * rho_A / del_P."
},
"v_MCRHP": {
"type": "unknown",
"units": "m/s",
"description": "Hydroxy-hydroperoxy-methacrolein dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.582183808, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MCRHP": {
"type": "unknown",
"units": "1/s",
"description": "MCRHP dry deposition rate [1/s] = v_MCRHP * g * rho_A / del_P."
},
"v_MCT": {
"type": "unknown",
"units": "m/s",
"description": "Catechols and methyl catechols dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.623555974, Hstar=420.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MCT": {
"type": "unknown",
"units": "1/s",
"description": "MCT dry deposition rate [1/s] = v_MCT * g * rho_A / del_P."
},
"v_MENO3": {
"type": "unknown",
"units": "m/s",
"description": "Methyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.068072755, Hstar=2.0, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MENO3": {
"type": "unknown",
"units": "1/s",
"description": "MENO3 dry deposition rate [1/s] = v_MENO3 * g * rho_A / del_P."
},
"v_MGLY": {
"type": "unknown",
"units": "m/s",
"description": "Methylglyoxal dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.000123225, Hstar=3700.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MGLY": {
"type": "unknown",
"units": "1/s",
"description": "MGLY dry deposition rate [1/s] = v_MGLY * g * rho_A / del_P."
},
"v_MOH": {
"type": "unknown",
"units": "m/s",
"description": "Methanol dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.333808586, Hstar=203.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MOH": {
"type": "unknown",
"units": "1/s",
"description": "MOH dry deposition rate [1/s] = v_MOH * g * rho_A / del_P."
},
"v_MONITS": {
"type": "unknown",
"units": "m/s",
"description": "Saturated 1st gen monoterpene organic nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.456856361, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MONITS": {
"type": "unknown",
"units": "1/s",
"description": "MONITS dry deposition rate [1/s] = v_MONITS * g * rho_A / del_P."
},
"v_MONITU": {
"type": "unknown",
"units": "m/s",
"description": "Unsaturated 1st gen monoterpene organic nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=3.456856361, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MONITU": {
"type": "unknown",
"units": "1/s",
"description": "MONITU dry deposition rate [1/s] = v_MONITU * g * rho_A / del_P."
},
"v_MPAN": {
"type": "unknown",
"units": "m/s",
"description": "Peroxymethacroyl nitrate (PMN) dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.857497296, Hstar=1.72, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MPAN": {
"type": "unknown",
"units": "1/s",
"description": "MPAN dry deposition rate [1/s] = v_MPAN * g * rho_A / del_P."
},
"v_MTPA": {
"type": "unknown",
"units": "m/s",
"description": "a-pinene, b-pinene, sabinene, carene dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.750196241, Hstar=0.049, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MTPA": {
"type": "unknown",
"units": "1/s",
"description": "MTPA dry deposition rate [1/s] = v_MTPA * g * rho_A / del_P."
},
"v_MTPO": {
"type": "unknown",
"units": "m/s",
"description": "Terpinene, terpinolene, myrcene, ocimene, other monoterpenes dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.750196241, Hstar=0.049, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MTPO": {
"type": "unknown",
"units": "1/s",
"description": "MTPO dry deposition rate [1/s] = v_MTPO * g * rho_A / del_P."
},
"v_MVK": {
"type": "unknown",
"units": "m/s",
"description": "Methyl vinyl ketone dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.972456898, Hstar=44.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MVK": {
"type": "unknown",
"units": "1/s",
"description": "MVK dry deposition rate [1/s] = v_MVK * g * rho_A / del_P."
},
"v_MVKDH": {
"type": "unknown",
"units": "m/s",
"description": "dihydroxy-MVK dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.415699025, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MVKDH": {
"type": "unknown",
"units": "1/s",
"description": "MVKDH dry deposition rate [1/s] = v_MVKDH * g * rho_A / del_P."
},
"v_MVKHC": {
"type": "unknown",
"units": "m/s",
"description": "MVK hydroxy-carbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MVKHC": {
"type": "unknown",
"units": "1/s",
"description": "MVKHC dry deposition rate [1/s] = v_MVKHC * g * rho_A / del_P."
},
"v_MVKHCB": {
"type": "unknown",
"units": "m/s",
"description": "MVK hydroxy-carbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.380632525, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MVKHCB": {
"type": "unknown",
"units": "1/s",
"description": "MVKHCB dry deposition rate [1/s] = v_MVKHCB * g * rho_A / del_P."
},
"v_MVKHP": {
"type": "unknown",
"units": "m/s",
"description": "MVK hydroxy-hydroperoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.582183808, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MVKHP": {
"type": "unknown",
"units": "1/s",
"description": "MVKHP dry deposition rate [1/s] = v_MVKHP * g * rho_A / del_P."
},
"v_MVKN": {
"type": "unknown",
"units": "m/s",
"description": "Nitrate from MVK dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.877050197, Hstar=2000000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MVKN": {
"type": "unknown",
"units": "1/s",
"description": "MVKN dry deposition rate [1/s] = v_MVKN * g * rho_A / del_P."
},
"v_MVKPC": {
"type": "unknown",
"units": "m/s",
"description": "MVK hydroperoxy-carbonyl dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560380085, Hstar=1400000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_MVKPC": {
"type": "unknown",
"units": "1/s",
"description": "MVKPC dry deposition rate [1/s] = v_MVKPC * g * rho_A / del_P."
},
"v_N2O5": {
"type": "unknown",
"units": "m/s",
"description": "Dinitrogen pentoxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.44867743, Hstar=100000000000000.0, Fo=0.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_N2O5": {
"type": "unknown",
"units": "1/s",
"description": "N2O5 dry deposition rate [1/s] = v_N2O5 * g * rho_A / del_P."
},
"v_NO2": {
"type": "unknown",
"units": "m/s",
"description": "Nitrogen dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.598106097, Hstar=0.01, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_NO2": {
"type": "unknown",
"units": "1/s",
"description": "NO2 dry deposition rate [1/s] = v_NO2 * g * rho_A / del_P."
},
"v_NPHEN": {
"type": "unknown",
"units": "m/s",
"description": "Nitrophenols dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.77880881, Hstar=2300.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_NPHEN": {
"type": "unknown",
"units": "1/s",
"description": "NPHEN dry deposition rate [1/s] = v_NPHEN * g * rho_A / del_P."
},
"v_NPRNO3": {
"type": "unknown",
"units": "m/s",
"description": "n-propyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.415469232, Hstar=1.1, Fo=0.1. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_NPRNO3": {
"type": "unknown",
"units": "1/s",
"description": "NPRNO3 dry deposition rate [1/s] = v_NPRNO3 * g * rho_A / del_P."
},
"v_O3": {
"type": "unknown",
"units": "m/s",
"description": "Ozone dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.632300488, Hstar=0.01, Fo=1.0. isSO2=False, isO3=True. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_O3": {
"type": "unknown",
"units": "1/s",
"description": "O3 dry deposition rate [1/s] = v_O3 * g * rho_A / del_P."
},
"v_PAN": {
"type": "unknown",
"units": "m/s",
"description": "Peroxyacetyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.592267569, Hstar=3.6, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_PAN": {
"type": "unknown",
"units": "1/s",
"description": "PAN dry deposition rate [1/s] = v_PAN * g * rho_A / del_P."
},
"v_PHEN": {
"type": "unknown",
"units": "m/s",
"description": "Phenol dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.285585007, Hstar=2800.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_PHEN": {
"type": "unknown",
"units": "1/s",
"description": "PHEN dry deposition rate [1/s] = v_PHEN * g * rho_A / del_P."
},
"v_PP": {
"type": "unknown",
"units": "m/s",
"description": "Peroxide from PO2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.261168272, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_PP": {
"type": "unknown",
"units": "1/s",
"description": "PP dry deposition rate [1/s] = v_PP * g * rho_A / del_P."
},
"v_PPN": {
"type": "unknown",
"units": "m/s",
"description": "Lumped peroxypropionyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.738262115, Hstar=3.6, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_PPN": {
"type": "unknown",
"units": "1/s",
"description": "PPN dry deposition rate [1/s] = v_PPN * g * rho_A / del_P."
},
"v_PROPNN": {
"type": "unknown",
"units": "m/s",
"description": "Propanone nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.570981223, Hstar=500000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_PROPNN": {
"type": "unknown",
"units": "1/s",
"description": "PROPNN dry deposition rate [1/s] = v_PROPNN * g * rho_A / del_P."
},
"v_PRPN": {
"type": "unknown",
"units": "m/s",
"description": "Peroxide from PRN1 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.758760869, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_PRPN": {
"type": "unknown",
"units": "1/s",
"description": "PRPN dry deposition rate [1/s] = v_PRPN * g * rho_A / del_P."
},
"v_PYAC": {
"type": "unknown",
"units": "m/s",
"description": "Pyruvic acid dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.211024169, Hstar=314000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_PYAC": {
"type": "unknown",
"units": "1/s",
"description": "PYAC dry deposition rate [1/s] = v_PYAC * g * rho_A / del_P."
},
"v_R4N2": {
"type": "unknown",
"units": "m/s",
"description": "Lumped alkyl nitrate dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.571197117, Hstar=17000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_R4N2": {
"type": "unknown",
"units": "1/s",
"description": "R4N2 dry deposition rate [1/s] = v_R4N2 * g * rho_A / del_P."
},
"v_R4P": {
"type": "unknown",
"units": "m/s",
"description": "Peroxide from R4O2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.236857245, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_R4P": {
"type": "unknown",
"units": "1/s",
"description": "R4P dry deposition rate [1/s] = v_R4P * g * rho_A / del_P."
},
"v_RA3P": {
"type": "unknown",
"units": "m/s",
"description": "Peroxide from A3O2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.055418934, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_RA3P": {
"type": "unknown",
"units": "1/s",
"description": "RA3P dry deposition rate [1/s] = v_RA3P * g * rho_A / del_P."
},
"v_RB3P": {
"type": "unknown",
"units": "m/s",
"description": "Peroxide from B3O2 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.055418934, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_RB3P": {
"type": "unknown",
"units": "1/s",
"description": "RB3P dry deposition rate [1/s] = v_RB3P * g * rho_A / del_P."
},
"v_RIPA": {
"type": "unknown",
"units": "m/s",
"description": "1,2-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_RIPA": {
"type": "unknown",
"units": "1/s",
"description": "RIPA dry deposition rate [1/s] = v_RIPA * g * rho_A / del_P."
},
"v_RIPB": {
"type": "unknown",
"units": "m/s",
"description": "4,3-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_RIPB": {
"type": "unknown",
"units": "1/s",
"description": "RIPB dry deposition rate [1/s] = v_RIPB * g * rho_A / del_P."
},
"v_RIPC": {
"type": "unknown",
"units": "m/s",
"description": "d-1,4-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_RIPC": {
"type": "unknown",
"units": "1/s",
"description": "RIPC dry deposition rate [1/s] = v_RIPC * g * rho_A / del_P."
},
"v_RIPD": {
"type": "unknown",
"units": "m/s",
"description": "d-4,1-ISOPOOH dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.560922022, Hstar=1700000.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_RIPD": {
"type": "unknown",
"units": "1/s",
"description": "RIPD dry deposition rate [1/s] = v_RIPD * g * rho_A / del_P."
},
"v_RP": {
"type": "unknown",
"units": "m/s",
"description": "Peroxide from RCO3 dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.236236775, Hstar=294.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_RP": {
"type": "unknown",
"units": "1/s",
"description": "RP dry deposition rate [1/s] = v_RP * g * rho_A / del_P."
},
"v_SO2": {
"type": "unknown",
"units": "m/s",
"description": "Sulfur dioxide dry deposition velocity [m/s]. GasData: Dh2oPerDx=1.885407166, Hstar=100000.0, Fo=0.0. isSO2=True, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_SO2": {
"type": "unknown",
"units": "1/s",
"description": "SO2 dry deposition rate [1/s] = v_SO2 * g * rho_A / del_P."
},
"v_RCOOH": {
"type": "unknown",
"units": "m/s",
"description": "> C2 organic acids dry deposition velocity [m/s]. GasData: Dh2oPerDx=2.027959554, Hstar=1520.0, Fo=1.0. isSO2=False, isO3=False. rain=false, dew=false (hardcoded in DryDepositionGas)."
},
"k_RCOOH": {
"type": "unknown",
"units": "1/s",
"description": "RCOOH dry deposition rate [1/s] = v_RCOOH * g * rho_A / del_P."
}
},
"equations": [
{
"lhs": "Ts_c",
"rhs": {
"op": "-",
"args": [
"Ts",
273.0
]
}
},
{
"lhs": "L2_eps",
"rhs": {
"op": "+",
"args": [
{
"op": "*",
"args": [
"L",
"L"
]
},
1e-300
]
}
},
{
"lhs": "zeta",
"rhs": {
"op": "/",
"args": [
{
"op": "*",
"args": [
"z",
"L"
]
},
"L2_eps"
]
}
},
{
"lhs": "zeta_0",
"rhs": {
"op": "/",
"args": [
{
"op": "*",
"args": [
"z0",
"L"
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},
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9999.0
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{
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"rho_A"
]
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]
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{
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1
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1,
0
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{
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{
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{
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{
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"Dh2o"
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{
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3.0
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{
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{
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{
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10.0
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9999.0
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{
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{
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"args": [
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"g_const",
"rho_A"
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},
"del_P"
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},
{
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1,
0
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{
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{
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{
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{
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{
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{
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1520.0,
{
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100000.0,
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10.0
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9999.0
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},
{
"lhs": "k_RCOOH",
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"args": [
{
"op": "*",
"args": [
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"g_const",
"rho_A"
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},
"del_P"
]
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}
],
"tests": [
{
"id": "v_NO_standard",
"description": "NO deposition velocity (midsummer, rangeAg landuse=10, neutral L=0, 298K, lev=1). Low Hstar=3e-3, Fo=0.",
"parameter_overrides": {
"z": 50.0,
"z0": 0.04,
"u_star": 0.44,
"L": 0.0,
"rho_A": 1.2,
"G": 300.0,
"Ts": 298.0,
"theta": 0.0,
"season": 1.0,
"landuse": 10.0,
"lev": 1.0,
"del_P": 1520.0
},
"time_span": {
"start": 0.0,
"end": 1.0
},
"assertions": [
{
"variable": "v_NO",
"time": 0.0,
"expected": 9.951037421545818e-05,
"tolerance": {
"rel": 1e-06
}
},
{
"variable": "v_NO",
"time": 1.0,
"expected": 9.951037421545818e-05,
"tolerance": {
"rel": 1e-06
}
}
]
},
{
"id": "v_O3_standard",
"description": "O3 deposition velocity. isO3=true: rclx=r_clO_val, rgsx=r_gsO_val.",
"parameter_overrides": {
"z": 50.0,
"z0": 0.04,
"u_star": 0.44,
"L": 0.0,
"rho_A": 1.2,
"G": 300.0,
"Ts": 298.0,
"theta": 0.0,
"season": 1.0,
"landuse": 10.0,
"lev": 1.0,
"del_P": 1520.0
},
"time_span": {
"start": 0.0,
"end": 1.0
},
"assertions": [
{
"variable": "v_O3",
"time": 0.0,
"expected": 0.005764245283191851,
"tolerance": {
"rel": 1e-06
}
}
]
},
{
"id": "v_SO2_standard",
"description": "SO2 deposition velocity. isSO2=true: rclx=r_clS_val, rgsx=r_gsS_val.",
"parameter_overrides": {
"z": 50.0,
"z0": 0.04,
"u_star": 0.44,
"L": 0.0,
"rho_A": 1.2,
"G": 300.0,
"Ts": 298.0,
"theta": 0.0,
"season": 1.0,
"landuse": 10.0,
"lev": 1.0,
"del_P": 1520.0
},
"time_span": {
"start": 0.0,
"end": 1.0
},
"assertions": [
{
"variable": "v_SO2",
"time": 0.0,
"expected": 0.005141943517561404,
"tolerance": {
"rel": 1e-06
}
}
]
},
{
"id": "lev2_zero",
"description": "lev=2: all deposition velocities are zero (non-surface layer).",
"parameter_overrides": {
"z": 50.0,
"z0": 0.04,
"u_star": 0.44,
"L": 0.0,
"rho_A": 1.2,
"G": 300.0,
"Ts": 298.0,
"theta": 0.0,
"season": 1.0,
"landuse": 10.0,
"lev": 2.0,
"del_P": 1520.0
},
"time_span": {
"start": 0.0,
"end": 1.0
},
"assertions": [
{
"variable": "v_NO",
"time": 0.0,
"expected": 0.0,
"tolerance": {
"abs": 1e-30
}
},
{
"variable": "v_O3",
"time": 0.0,
"expected": 0.0,
"tolerance": {
"abs": 1e-30
}
},
{
"variable": "v_SO2",
"time": 0.0,
"expected": 0.0,
"tolerance": {
"abs": 1e-30
}
}
]
},
{
"id": "k_NO_standard",
"description": "k_NO = v_NO * g_const * rho_A / del_P.",
"parameter_overrides": {
"z": 50.0,
"z0": 0.04,
"u_star": 0.44,
"L": 0.0,
"rho_A": 1.2,
"G": 300.0,
"Ts": 298.0,
"theta": 0.0,
"season": 1.0,
"landuse": 10.0,
"lev": 1.0,
"del_P": 1520.0
},
"time_span": {
"start": 0.0,
"end": 1.0
},
"assertions": [
{
"variable": "k_NO",
"time": 0.0,
"expected": 7.706816613581405e-07,
"tolerance": {
"rel": 1e-06
}
}
]
}
]
}