Thermodynamics

Cp_m(q_vap, constants)

Specific heat capacity for moist air #technically not in use now (returns dry Cp)

R_m(q_vap, constants)

Gas constant for moist air #technically not in use now (returns Rd)

R_m_moist(q_vap, constants)

T_from_theta!(T, θ, P, q_vap, constants)

T_from_theta(θ, P, q_vap, constants)

T_virtual(T, q_vap, constants)

Calculate virtual temperature

calc_P_dry_from_P(P, q_vap, constants)

Calculate dry air pressure from total pressure and water vapor specific humidity

calc_P_from_P_dry(P_dry, q_vap, constants)

Calculate total pressure from dry air pressure and water vapor specific humidity

calc_T(constants, θ, ρ_dry, q_vap)

Calculate temperature from potential temperature, dry air density, and water vapor specific humidity

calc_θ_dry(constants, θ, q_vap)

Calculate dry potential temperature θ_dry

calc_θ_moist(constants, θd, q_vap)

Calculate moist potential temperature θ_moist

calc_ρ_dry_from_ρ(ρ, q_vap)

Calculate dry air density from total density and water vapor specific humidity

calc_ρ_from_ρ_dry(ρ_dry, q_vap)

Calculate total density from dry air density and water vapor specific humidity

compute_ql_all_cells!(state, constants)
Compute the liquid water mixing ratio ql for all grid cells from superdroplet data using cell_id

compute_ql_at_cell!(state, k, constants)
Compute the liquid water mixing ratio ql at a specific grid cell k from superdroplet data
droplets.I must be current and droplets.grid_range[k] must be valid for this to work correctly.

mixing_ratio(q_vap)

specific_humidity(r)

theta_from_T!(θ, T, P, q_vap, constants)

theta_from_T(T, P, q_vap, constants)

virtual_temp_coeff(constants)

θ_from_θl(P, θl_val, ql, q_vap, constants)

θ_from_θv(θv, q_vap, constants)

Calculate potential temperature from virtual potential temperature

θ_virtual(θ, q_vap, constants)

Calculate virtual potential temperature

θl(P, T, ql, q_vap, constants)

ρ_calc_θ!(ρ, P, θ, q_vap, constants)

Calculate density using potential temperature (prognostic) and store in ρ

ρ_calc_θ(P, θ, q_vap, constants)

Calculate density using potential temperature (prognostic)

ρ_ideal_gas!(ρ, P, T, q_vap, constants)

ρ_ideal_gas(P, T, q_vap, constants)

dPdz(Pz, odesettings, z) computes the vertical pressure gradient dP/dz at a given height z, based on the current pressure Pz, to solve for the initial hydrostatic pressure profile.

dρdrydzpysdm(ρdryz, odesettings, z) solver for initial profiles computes the vertical dry air density gradient dρdry/dz at a given height z, based on the current dry air density ρdry_z

initdropletsscm(dist, settings, spatial, qvprofile; deterministicmultiplicity=false) initializes the single column model droplets based on the given distribution, coagulation settings, spatial settings, and water vapor profile.