Misc refactoring

experiments/ClimaCore/sea_breeze/atmos_rhs.jl

@@ -317,8 +317,8 @@ end
 
 # ## Coupled Atmos Wrappers
 ## Atmos Simulation - later to live in ClimaAtmos
-struct AtmosSim <: AbstractAtmosSim
-    integrator::Any
+struct AtmosSim{T} <: AbstractAtmosSim
+    integrator::T
 end
 
 function AtmosSim(Y_init, t_start, dt, t_end, timestepper, p, saveat, callbacks = CallbackSet())

experiments/ClimaEarth/components/atmosphere/climaatmos.jl

@@ -122,7 +122,7 @@ function Interfacer.get_field(atmos_sim::ClimaAtmosSimulation, ::Val{:radiative_
 
         return @. -(LWd_TOA + SWd_TOA - LWu_TOA - SWu_TOA)
     else
-        return [FT(0)]
+        return FT[0]
     end
 end
 

experiments/ClimaEarth/components/ocean/slab_ocean.jl

@@ -49,11 +49,11 @@ function slab_ocean_space_init(space, params)
     coords = CC.Fields.coordinate_field(space)
 
     # initial condition
-    T_sfc = CC.Fields.zeros(space) .+ params.T_init # FT(271) close to the average of T_1 in atmos
-    @. T_sfc += temp_anomaly(coords)
+    # FT(271) close to the average of T_1 in atmos
+    @. T_sfc = params.T_init + temp_anomaly(coords)
 
     # prognostic variable
-    Y = CC.Fields.FieldVector(T_sfc = T_sfc)
+    Y = CC.Fields.FieldVector(; T_sfc = T_sfc)
 
     return Y, space
 end
@@ -94,7 +94,7 @@ function ocean_init(
     )
 
     ode_algo = CTS.ExplicitAlgorithm(stepper)
-    ode_function = CTS.ClimaODEFunction(T_exp! = slab_ocean_rhs!, dss! = weighted_dss_slab!)
+    ode_function = CTS.ClimaODEFunction(; T_exp! = slab_ocean_rhs!, dss! = weighted_dss_slab!)
 
     problem = SciMLBase.ODEProblem(ode_function, Y, Float64.(tspan), cache)
     integrator = SciMLBase.init(problem, ode_algo, dt = Float64(dt), saveat = Float64(saveat), adaptive = false)
@@ -185,6 +185,7 @@ This default case includes only an anomaly at the tropics.
 """
 function temp_anomaly(coord)
     # include tropics anomaly
+    FT = eltype(coord)
     anom = FT(29 * exp(-coord.lat^2 / (2 * 26^2)))
     return anom
 end

experiments/ClimaEarth/run_amip.jl

@@ -287,17 +287,17 @@ if mode_name == "amip"
         file_reader_kwargs = (; preprocess_func = (data) -> data + FT(273.15),), ## convert to Kelvin
     )
 
-    SST_init = CC.Fields.zeros(boundary_space)
+    SST_init = zeros(boundary_space)
     evaluate!(SST_init, SST_timevaryinginput, t_start)
 
     ocean_sim = Interfacer.SurfaceStub((;
         T_sfc = SST_init,
-        ρ_sfc = CC.Fields.zeros(boundary_space),
+        ρ_sfc = zeros(boundary_space),
         z0m = FT(1e-3),
         z0b = FT(1e-3),
         beta = FT(1),
-        α_direct = CC.Fields.ones(boundary_space) .* FT(0.06),
-        α_diffuse = CC.Fields.ones(boundary_space) .* FT(0.06),
+        α_direct = ones(boundary_space) .* FT(0.06),
+        α_diffuse = ones(boundary_space) .* FT(0.06),
         area_fraction = (FT(1) .- land_area_fraction),
         phase = TD.Liquid(),
         thermo_params = thermo_params,
@@ -312,7 +312,7 @@ if mode_name == "amip"
         file_reader_kwargs = (; preprocess_func = (data) -> data / 100,), ## convert to fraction
     )
 
-    SIC_init = CC.Fields.zeros(boundary_space)
+    SIC_init = zeros(boundary_space)
     evaluate!(SIC_init, SIC_timevaryinginput, t_start)
 
     ice_fraction = get_ice_fraction.(SIC_init, mono_surface)
@@ -329,7 +329,7 @@ if mode_name == "amip"
     ## CO2 concentration from temporally varying file
     CO2_timevaryinginput = TimeVaryingInput(co2_data, "co2", boundary_space, reference_date = date0)
 
-    CO2_init = CC.Fields.zeros(boundary_space)
+    CO2_init = zeros(boundary_space)
     evaluate!(CO2_init, CO2_timevaryinginput, t_start)
     CO2_field = Interfacer.update_field!(atmos_sim, Val(:co2), CO2_init)
 
@@ -378,14 +378,14 @@ elseif mode_name in ("slabplanet", "slabplanet_aqua", "slabplanet_terra")
 
     ## sea ice stub (here set to zero area coverage)
     ice_sim = Interfacer.SurfaceStub((;
-        T_sfc = CC.Fields.ones(boundary_space),
-        ρ_sfc = CC.Fields.zeros(boundary_space),
+        T_sfc = ones(boundary_space),
+        ρ_sfc = zeros(boundary_space),
         z0m = FT(0),
         z0b = FT(0),
         beta = FT(1),
-        α_direct = CC.Fields.ones(boundary_space) .* FT(1),
-        α_diffuse = CC.Fields.ones(boundary_space) .* FT(1),
-        area_fraction = CC.Fields.zeros(boundary_space),
+        α_direct = ones(boundary_space) .* FT(1),
+        α_diffuse = ones(boundary_space) .* FT(1),
+        area_fraction = zeros(boundary_space),
         phase = TD.Ice(),
         thermo_params = thermo_params,
     ))
@@ -419,7 +419,7 @@ elseif mode_name == "slabplanet_eisenman"
         dt = Δt_cpl,
         space = boundary_space,
         saveat = saveat,
-        area_fraction = CC.Fields.zeros(boundary_space), # zero, since ML is calculated below
+        area_fraction = zeros(boundary_space), # zero, since ML is calculated below
         thermo_params = thermo_params,
     )
 
@@ -468,8 +468,7 @@ coupler_field_names = (
     :temp1,
     :temp2,
 )
-coupler_fields =
-    NamedTuple{coupler_field_names}(ntuple(i -> CC.Fields.zeros(boundary_space), length(coupler_field_names)))
+coupler_fields = NamedTuple{coupler_field_names}(ntuple(i -> zeros(boundary_space), length(coupler_field_names)))
 Utilities.show_memory_usage()
 
 ## model simulations
@@ -710,7 +709,7 @@ function solve_coupler!(cs)
             evaluate!(Interfacer.get_field(ice_sim, Val(:area_fraction)), cs.mode.SIC_timevaryinginput, t)
 
             # TODO: get_field with :co2 is not implemented, so this is a little awkward
-            current_CO2 = CC.Fields.zeros(boundary_space)
+            current_CO2 = zeros(boundary_space)
             evaluate!(current_CO2, cs.mode.CO2_timevaryinginput, t)
             Interfacer.update_field!(atmos_sim, Val(:co2), current_CO2)