Fix formatting

src/actuator_model.jl

@@ -1,9 +1,9 @@
 # Actuator models to translate commands (probably in V) into gas flows
 
 using PhysicalConstants.CODATA2018
-import Unitful
+using Unitful: Unitful
 using Interpolations: Interpolations
-import YAML
+using YAML: YAML
 
 """
 gas_unit_converter()
@@ -13,15 +13,16 @@ Pressure * volume type flows / quantities and count / current types of units.
 Output will be unitful; take output.val if you do no want the units attached.
 """
 function gas_unit_converter(
-    value_in, units_in, units_out; species::String="H", temperature=293.15 * Unitful.K
+    value_in, units_in, units_out; species::String="H", temperature=293.15 * Unitful.K,
 )
     if units_in == units_out
         return value_in
     end
 
     # Multiply by gas flow to convert Torr L/s to Pa m^3/s
     torrl_to_pam3 = 0.133322368 * Unitful.Pa * Unitful.m^3 / Unitful.Torr / Unitful.L
-    pam3_to_molecules = Unitful.J / (temperature * BoltzmannConstant) / (Unitful.Pa * Unitful.m^3)
+    pam3_to_molecules =
+        Unitful.J / (temperature * BoltzmannConstant) / (Unitful.Pa * Unitful.m^3)
     torrl_to_molecules = torrl_to_pam3 * pam3_to_molecules
     atoms_per_molecule = Dict(
         "H" => 1 * 2,  # Assumed to mean H2. How would you even puff a bunch of H1.
@@ -58,18 +59,18 @@ function gas_unit_converter(
         "C" => ElementaryCharge / atoms_per_molecule[species],
     )
     if haskey(factor_to_get_molecules_s, units_in)
-        conversion_factor = factor_to_get_molecules_s[units_in] / factor_to_get_molecules_s[units_out]
+        conversion_factor =
+            factor_to_get_molecules_s[units_in] / factor_to_get_molecules_s[units_out]
     elseif haskey(factor_to_get_molecules, units_in)
-        conversion_factor = factor_to_get_molecules[units_in] / factor_to_get_molecules[units_out]
+        conversion_factor =
+            factor_to_get_molecules[units_in] / factor_to_get_molecules[units_out]
     else
         throw(ArgumentError("Unrecognized units: " * units_in))
     end
     return value_in .* conversion_factor
 end
 
-function select_default_config(model::String)
-    return model * "_gas_valve.yml"
-end
+select_default_config(model::String) = model * "_gas_valve.yml"
 
 """
     model_gas_valve()
@@ -78,7 +79,7 @@ The main function for handling a gas valve model. Has logic for selecting models
 and configurations.
 """
 function model_gas_valve(
-    t, command, model::String; configuration_file::String="auto", species::String="D2"
+    t, command, model::String; configuration_file::String="auto", species::String="D2",
 )
     # Select configuration file
     if configuration_file == "auto"
@@ -110,7 +111,7 @@ function model_gas_valve(
 end
 
 function instant_gas_model(command, config)
-    return config["p1"] .* (sqrt.(((command * config["p2"]).^2.0.+1).-1))
+    return config["p1"] .* (sqrt.(((command * config["p2"]) .^ 2.0 .+ 1) .- 1))
 end
 
 function lowpass_filter_(raw, previous_smooth, dt, tau)
@@ -119,7 +120,7 @@ end
 
 function lowpass_filter(t, x, tau)
     xs = zeros(length(t))
-    for i = 2:length(t)
+    for i ∈ 2:length(t)
         xs[i] = lowpass_filter_(x[i], xs[i-1], t[i] - t[i-1], tau)
     end
     return xs
@@ -133,5 +134,5 @@ function simple_gas_model(t, command, config)
     prepend!(flow0_ext, flow0[1])
     interp = Interpolations.LinearInterpolation(t_ext, flow0_ext)
     delayed_flow = interp.(t .- config["delay"])
-    flow = lowpass_filter(t, delayed_flow, config["tau"])
+    return flow = lowpass_filter(t, delayed_flow, config["tau"])
 end

test/runtests.jl

@@ -4,7 +4,7 @@ using OMAS: OMAS
 using EFIT: EFIT
 using Plots
 using Test
-import Unitful
+using Unitful: Unitful
 
 """
     make_test_profile()
@@ -71,14 +71,23 @@ function define_default_sample_set()
     return b2fgmtry, b2time, b2mn, gridspec, eqdsk
 end
 
-
 @testset "lightweight_utilities" begin
     # Gas unit converter
     flow_tls = 40.63 * Unitful.Torr * Unitful.L / Unitful.s
     flow_pam3 = SD4SOLPS.gas_unit_converter(flow_tls, "torr L s^-1", "Pa m^3 s^-1")
     @test flow_pam3.val > 0.0
-    flow_molecules1 = SD4SOLPS.gas_unit_converter(flow_tls, "torr L s^-1", "molecules s^-1", temperature=293.15 * Unitful.K)
-    flow_molecules2 = SD4SOLPS.gas_unit_converter(flow_tls, "torr L s^-1", "molecules s^-1", temperature=300.0 * Unitful.K)
+    flow_molecules1 = SD4SOLPS.gas_unit_converter(
+        flow_tls,
+        "torr L s^-1",
+        "molecules s^-1";
+        temperature=293.15 * Unitful.K,
+    )
+    flow_molecules2 = SD4SOLPS.gas_unit_converter(
+        flow_tls,
+        "torr L s^-1",
+        "molecules s^-1";
+        temperature=300.0 * Unitful.K,
+    )
     @test flow_molecules1 > flow_molecules2
 end