run formatter

Author: ychnli

src/standalone/Vegetation/canopy_parameterizations.jl

@@ -1221,10 +1221,7 @@ end
     is taken to be constant (1000.0 kg/m^3). Otherwise we use an EOS to compute the density
     at the given temperature and pressure. 
 """
-function compute_viscosity_ratio(
-    T::FT,
-    p::FT,
-) where {FT}
+function compute_viscosity_ratio(T::FT, p::FT) where {FT}
     η25 = viscosity_h2o(FT(298.15), FT(101325.0))
     ηstar = viscosity_h2o(T, p) / η25
     return FT(ηstar)

src/standalone/Vegetation/pmodel.jl

@@ -1,7 +1,4 @@
-export PModelParameters, 
-    PModelConstants, 
-    compute_full_pmodel_outputs, 
-    PModel
+export PModelParameters, PModelConstants, compute_full_pmodel_outputs, PModel
 
 """
     PModelParameters{FT<:AbstractFloat}
@@ -202,7 +199,7 @@ function compute_full_pmodel_outputs(
     ca::FT,
     P_air::FT,
     VPD::FT,
-    βm::FT
+    βm::FT,
 ) where {FT}
     # Unpack parameters
     (; cstar, β, ϕc, ϕ0, ϕa0, ϕa1, ϕa2) = parameters

test/standalone/Vegetation/test_pmodel.jl

@@ -201,12 +201,20 @@ end
                 I_abs = FT(inputs["fapar"]) * FT(inputs["ppfd"])
                 βm =
                     Bool(inputs["do_soilmstress"]) ?
-                    quadratic_soil_moisture_stress(FT(inputs["soilm"])) : FT(1.0)
+                    quadratic_soil_moisture_stress(FT(inputs["soilm"])) :
+                    FT(1.0)
 
                 # Run the model
-                outputs =
-                    compute_full_pmodel_outputs(parameters, constants, 
-                        T_canopy, I_abs, ca, P_air, VPD, βm)
+                outputs = compute_full_pmodel_outputs(
+                    parameters,
+                    constants,
+                    T_canopy,
+                    I_abs,
+                    ca,
+                    P_air,
+                    VPD,
+                    βm,
+                )
 
                 # Compare each output field
                 for key in keys(ref_outputs_typed)