Remove defunct paritioned enthalpy scheme

src/Physics/HeatConduction/HeatConduction.jl

@@ -30,10 +30,9 @@ struct FreeWater <: FreezeCurve end
 TemperatureProfile(pairs::Pair{<:DistQuantity,<:TempQuantity}...) =
     Profile(map(p -> uconvert(u"m", p[1]) => uconvert(u"°C", p[2]),pairs)...)
     
-abstract type HeatVariable end
-struct Enthalpy <: HeatVariable end
-struct PartitionedEnthalpy <: HeatVariable end
-struct Temperature <: HeatVariable end
+abstract type HeatImpl end
+struct Enthalpy <: HeatImpl end
+struct Temperature <: HeatImpl end
 
 @with_kw struct Heat{F<:FreezeCurve,S} <: SubSurfaceProcess
     ρ::Float"kg/m^3" = 1000.0xu"kg/m^3" #[kg/m^3]
@@ -45,7 +44,6 @@ end
 # convenience constructors for specifying prognostic variable as symbol
 Heat(var::Union{Symbol,Tuple{Vararg{Symbol}}}; kwargs...) = Heat(Val{var}(); kwargs...)
 Heat(::Val{:H}; kwargs...) = Heat(;sp=Enthalpy(), kwargs...)
-Heat(::Val{(:Hₛ,:Hₗ)}; kwargs...) = Heat(;sp=PartitionedEnthalpy(), kwargs...)
 Heat(::Val{:T}; kwargs...) = Heat(;sp=Temperature(), kwargs...)
 
 export enthalpy, heatcapacity, heatcapacity!, thermalconductivity, thermalconductivity!

src/Physics/HeatConduction/heat.jl

@@ -54,22 +54,6 @@ variables(layer::SubSurface, heat::Heat{<:FreezeCurve,Enthalpy}) = (
     # add freeze curve variables (if any are present)
     variables(layer, heat, freezecurve(heat))...,
 )
-""" Variable definitions for heat conduction (partitioned enthalpy) on any subsurface layer. """
-variables(layer::SubSurface, heat::Heat{<:FreezeCurve,PartitionedEnthalpy}) = (
-    Prognostic(:Hₛ, Float"J/m^3", OnGrid(Cells)),
-    Prognostic(:Hₗ, Float"J/m^3", OnGrid(Cells)),
-    Diagnostic(:dH, Float"J/s/m^3", OnGrid(Cells)),
-    Diagnostic(:H, Float"J", OnGrid(Cells)),
-    Diagnostic(:T, Float"°C", OnGrid(Cells)),
-    Diagnostic(:C, Float"J/K/m^3", OnGrid(Cells)),
-    Diagnostic(:Ceff, Float"J/K/m^3", OnGrid(Cells)),
-    Diagnostic(:dθdT, Float"m/m", OnGrid(Cells)),
-    Diagnostic(:k, Float"W/m/K", OnGrid(Edges)),
-    Diagnostic(:kc, Float"W/m/K", OnGrid(Cells)),
-    Diagnostic(:θl, Float"1", OnGrid(Cells)),
-    # add freeze curve variables (if any are present)
-    variables(layer, heat, freezecurve(heat))...,
-)
 """ Variable definitions for heat conduction (temperature) on any subsurface layer. """
 variables(layer::SubSurface, heat::Heat{<:FreezeCurve,Temperature}) = (
     Prognostic(:T, Float"°C", OnGrid(Cells)),
@@ -113,19 +97,6 @@ function prognosticstep!(::SubSurface, ::Heat{<:FreezeCurve,Enthalpy}, state)
     # Diffusion on non-boundary cells
     heatconduction!(state.dH,state.T,ΔT,state.k,Δk)
 end
-""" Prognostic step for heat conduction (partitioned enthalpy) on subsurface layer."""
-function prognosticstep!(::SubSurface, heat::Heat{<:FreezeCurve,PartitionedEnthalpy}, state)
-    Δk = Δ(state.grids.k) # cell sizes
-    ΔT = Δ(state.grids.T)
-    # Diffusion on non-boundary cells
-    heatconduction!(state.dH,state.T,ΔT,state.k,Δk)
-    let L = heat.L;
-        @. state.dHₛ = state.dH / (L/state.C*state.dθdT + 1)
-        # This could also be expressed via a mass matrix with 1
-        # in the upper right block diagonal. But this is easier.
-        @. state.dHₗ = state.dH - state.dHₛ
-    end
-end
 """ Prognostic step for heat conduction (temperature) on subsurface layer. """
 function prognosticstep!(::SubSurface, ::Heat{<:FreezeCurve,Temperature}, state)
     Δk = Δ(state.grids.k) # cell sizes

src/Physics/HeatConduction/soil/soilheat.jl

@@ -42,12 +42,3 @@ function initialcondition!(soil::Soil, heat::Heat{<:SFCC}, state)
     heatcapacity!(soil, heat, state)
     @. state.H = enthalpy(state.T, state.C, L, state.θl)
 end
-""" Diagonstic step for partitioned heat conduction on soil layer. """
-function initialcondition!(soil::Soil, heat::Heat{<:SFCC,PartitionedEnthalpy}, state)
-    L = heat.L
-    sfcc = freezecurve(heat)
-    state.θl .= sfcc.f.(state.T, sfccparams(sfcc.f, soil, heat, state)...)
-    heatcapacity!(soil, heat, state)
-    @. state.Hₛ = state.T*state.C
-    @. state.Hₗ = state.θl*L
-end