Apply JuliaFormatter to fix code formatting

- Applied JuliaFormatter with SciML style guide
- Formatted 9 files

🤖 Generated by OrgMaintenanceScripts.jl

Author: SciML Bot

docs/src/connectors/connections.md

@@ -191,7 +191,7 @@ nothing # hide
 As can be seen, we get exactly the same result.  The only difference here is that we are solving an extra equation, which allows us to plot the body position as well.
 
 ```@example connections
-prob = ODEProblem(sys, [], (0, 10.0), fully_determined=true)
+prob = ODEProblem(sys, [], (0, 10.0), fully_determined = true)
 sol_p = solve(prob)
 
 p1 = plot(sol_p, idxs = [body.v])
@@ -281,7 +281,7 @@ function simplify_and_solve(damping, spring, body, ground; initialization_eqs =
 
     println.(full_equations(sys))
 
-    prob = ODEProblem(sys, [], (0, 10.0); initialization_eqs, fully_determined=true)
+    prob = ODEProblem(sys, [], (0, 10.0); initialization_eqs, fully_determined = true)
     sol = solve(prob; abstol = 1e-9, reltol = 1e-9)
 
     return sol

docs/src/tutorials/MOSFET_calibration.md

@@ -1,5 +1,6 @@
-# MOSFET I-V Curves 
-In this example, first we'll demonstrate the I-V curves of the NMOS transistor model. 
+# MOSFET I-V Curves
+
+In this example, first we'll demonstrate the I-V curves of the NMOS transistor model.
 First of all, we construct a circuit using the NMOS transistor. We'll need to import ModelingToolkit and the Electrical standard library that holds the transistor models.
 
 ```@example NMOS
@@ -12,6 +13,7 @@ using Plots
 ```
 
 Here we just connect the source pin to ground, the drain pin to a voltage source named `Vcc`, and the gate pin to a voltage source named `Vb`.
+
 ```@example NMOS
 @mtkmodel SimpleNMOSCircuit begin
     @components begin
@@ -20,8 +22,8 @@ Here we just connect the source pin to ground, the drain pin to a voltage source
         Vb = Voltage()
         ground = Ground()
 
-        Vcc_const = Constant(k=V_cc)
-        Vb_const = Constant(k=V_b)
+        Vcc_const = Constant(k = V_cc)
+        Vb_const = Constant(k = V_b)
     end
 
     @parameters begin
@@ -48,7 +50,8 @@ prob = ODEProblem(sys, Pair[], (0.0, 10.0))
 sol = solve(prob)
 ```
 
-Now to make sure that the transistor model is working like it's supposed to, we can examine the plots of the drain-source voltage vs. the drain current, otherwise knowns as the I-V curve of the transistor. 
+Now to make sure that the transistor model is working like it's supposed to, we can examine the plots of the drain-source voltage vs. the drain current, otherwise knowns as the I-V curve of the transistor.
+
 ```@example NMOS
 v_cc_list = collect(0.05:0.1:10.0)
 
@@ -58,7 +61,7 @@ I_D_lists = []
 for V_b in [1.0, 1.4, 1.8, 2.2, 2.6]
     I_D_list = []
     for V_cc in v_cc_list
-        @mtkbuild sys = SimpleNMOSCircuit(V_cc=V_cc, V_b=V_b)
+        @mtkbuild sys = SimpleNMOSCircuit(V_cc = V_cc, V_b = V_b)
         prob = ODEProblem(sys, Pair[], (0.0, 10.0))
         sol = solve(prob)
         push!(I_D_list, sol[sys.Q1.d.i][1])
@@ -67,8 +70,10 @@ for V_b in [1.0, 1.4, 1.8, 2.2, 2.6]
 end
 
 reduce(hcat, I_D_lists)
-plot(v_cc_list, I_D_lists, title="NMOS IV Curves", label=["V_GS: 1.0 V" "V_GS: 1.4 V" "V_GS: 1.8 V" "V_GS: 2.2 V" "V_GS: 2.6 V"], xlabel = "Drain-Source Voltage (V)", ylabel = "Drain Current (A)")
+plot(v_cc_list, I_D_lists, title = "NMOS IV Curves",
+    label = ["V_GS: 1.0 V" "V_GS: 1.4 V" "V_GS: 1.8 V" "V_GS: 2.2 V" "V_GS: 2.6 V"],
+    xlabel = "Drain-Source Voltage (V)", ylabel = "Drain Current (A)")
 ```
 
-We can see that we get exactly what we would expect: as the drain-source voltage increases, the drain current increases, until the the transistor gets in to the saturation region of operation. 
-Then the only increase in drain current is due to the channel-length modulation effect. Additionally, we can see that the maximum current reached increases as the gate voltage increases. 
+We can see that we get exactly what we would expect: as the drain-source voltage increases, the drain current increases, until the the transistor gets in to the saturation region of operation.
+Then the only increase in drain current is due to the channel-length modulation effect. Additionally, we can see that the maximum current reached increases as the gate voltage increases.

docs/src/tutorials/input_component.md

@@ -84,7 +84,7 @@ my_interpolation = LinearInterpolation(df.data, df.time)
 
 @mtkmodel MassSpringDamperSystem2 begin
     @components begin
-        src = Interpolation(itp=my_interpolation)
+        src = Interpolation(itp = my_interpolation)
         clk = ContinuousClock()
         model = MassSpringDamper()
     end
@@ -174,7 +174,7 @@ plot(sol2)
 ```
 
 !!! note
-
+    
     Note that when changing the data, the length of the new data must be the same as the length of the original data.
 
 ## Custom Component with External Data

src/Blocks/sources.jl

@@ -871,6 +871,7 @@ function ParametrizedInterpolation(
         name)
 end
 
-function ParametrizedInterpolation(; interp_type, u::AbstractVector, x::AbstractVector, name)
+function ParametrizedInterpolation(;
+        interp_type, u::AbstractVector, x::AbstractVector, name)
     ParametrizedInterpolation(interp_type, u, x; name)
 end

src/Electrical/Analog/mosfets.jl

@@ -71,18 +71,16 @@ Based on the MOSFET models in (Sedra, A. S., Smith, K. C., Carusone, T. C., & Ga
         d.i ~ ifelse(d.v < s.v, -1, 1) * ifelse(V_GS < V_tn,
             V_DS / R_DS,
             ifelse(V_DS < V_OV,
-                    k_n * (1 + lambda * V_DS) * (V_OV - V_DS / 2) * V_DS + V_DS / R_DS,
-                    ((k_n * V_OV^2) / 2) * (1 + lambda * V_DS) + V_DS / R_DS
-                )
+                k_n * (1 + lambda * V_DS) * (V_OV - V_DS / 2) * V_DS + V_DS / R_DS,
+                ((k_n * V_OV^2) / 2) * (1 + lambda * V_DS) + V_DS / R_DS
             )
+        )
 
         g.i ~ 0
         s.i ~ -d.i
     end
 end
 
-
-
 """
     PMOS(;name, V_tp, R_DS, lambda)
 
@@ -154,13 +152,13 @@ Based on the MOSFET models in (Sedra, A. S., Smith, K. C., Carusone, T. C., & Ga
         d.i ~ -ifelse(d.v > s.v, -1.0, 1.0) * ifelse(V_GS > V_tp,
             V_DS / R_DS,
             ifelse(V_DS > (V_GS - V_tp),
-                    k_p * (1 + lambda * V_DS) * ((V_GS - V_tp) - V_DS / 2) * V_DS +
-                    V_DS / R_DS,
-                    ((k_p * (V_GS - V_tp)^2) / 2) * (1 + lambda * V_DS) + V_DS / R_DS,
+                k_p * (1 + lambda * V_DS) * ((V_GS - V_tp) - V_DS / 2) * V_DS +
+                V_DS / R_DS,
+                ((k_p * (V_GS - V_tp)^2) / 2) * (1 + lambda * V_DS) + V_DS / R_DS
             )
         )
 
         g.i ~ 0
         s.i ~ -d.i
     end
-end
+end

test/Blocks/sources.jl

@@ -499,7 +499,6 @@ end
 end
 
 @testset "Interpolation in model macro" begin
-
     function MassSpringDamper(; name)
         @named input = RealInput()
         @variables f(t) x(t)=0 dx(t)=0 ddx(t)
@@ -527,7 +526,7 @@ end
             connect(src.input, clk.output)
             connect(src.output, model.input)
         end
-    end;
+    end
     @mtkcompile sys = model_with_lut()
 
     prob = ODEProblem(sys, [], (0.0, 1))

test/Electrical/analog.jl

@@ -72,7 +72,8 @@ end
                    connect(R2.n, voltage.n, ground.g)]
 
     @named model = System(connections, t,
-        systems = [R0, R1, R2, source, short, voltage, ground]; guesses = [R2.v => 0.0, R1.v => 0.0])
+        systems = [R0, R1, R2, source, short, voltage, ground]; guesses = [
+            R2.v => 0.0, R1.v => 0.0])
     sys = mtkcompile(model)
     prob = ODEProblem(sys, [], (0, 2.0))
     sol = solve(prob, Rodas4()) # has no state; does not work with Tsit5
@@ -541,16 +542,15 @@ end
     # savefig(plt, "rc_circuit_test_variable_resistor")
 end
 @testset "NMOS Transistor" begin
-
     @mtkmodel SimpleNMOSCircuit begin
         @components begin
             Q1 = NMOS()
             Vcc = Voltage()
             Vb = Voltage()
             ground = Ground()
 
-            Vcc_const = Constant(k=V_cc)
-            Vb_const = Constant(k=V_b)
+            Vcc_const = Constant(k = V_cc)
+            Vb_const = Constant(k = V_b)
         end
 
         @parameters begin
@@ -589,8 +589,8 @@ end
             Vb = Voltage()
             ground = Ground()
 
-            Vcc_const = Constant(k=V_cc)
-            Vb_const = Constant(k=V_b)
+            Vcc_const = Constant(k = V_cc)
+            Vb_const = Constant(k = V_b)
         end
 
         @parameters begin
@@ -611,19 +611,16 @@ end
         end
     end
 
-    @mtkbuild flipped_sys = FlippedNMOSCircuit(V_cc=5.0, V_b=3.5)
+    @mtkbuild flipped_sys = FlippedNMOSCircuit(V_cc = 5.0, V_b = 3.5)
 
     flipped_prob = ODEProblem(flipped_sys, Pair[], (0.0, 10.0))
     flipped_sol = solve(flipped_prob)
     @test flipped_sol[flipped_sys.Q1.d.i][1] < 0
-    @test flipped_sol[flipped_sys.Q1.s.i][1] > 0 
+    @test flipped_sol[flipped_sys.Q1.s.i][1] > 0
     @test flipped_sol[flipped_sys.Q1.s.v] > flipped_sol[flipped_sys.Q1.d.v]
-    
 end
 
-
 @testset "PMOS Transistor" begin
-
     @mtkmodel SimplePMOSCircuit begin
         @components begin
             Q1 = PMOS()
@@ -632,9 +629,9 @@ end
             Vd = Voltage()
             ground = Ground()
 
-            Vs_const = Constant(k=V_s)
-            Vb_const = Constant(k=V_b)
-            Vd_const = Constant(k=V_d)
+            Vs_const = Constant(k = V_s)
+            Vb_const = Constant(k = V_b)
+            Vd_const = Constant(k = V_d)
         end
 
         @parameters begin
@@ -646,7 +643,7 @@ end
             #voltage sources
             connect(Vs_const.output, Vs.V)
             connect(Vb_const.output, Vb.V)
-            connect(Vd_const.output, Vd.V )
+            connect(Vd_const.output, Vd.V)
 
             #ground connections
             connect(Vs.n, Vb.n, ground.g, Vd.n)
@@ -658,7 +655,7 @@ end
         end
     end
 
-    @mtkbuild sys = SimplePMOSCircuit(V_s=5.0, V_b=2.5, V_d = 3)
+    @mtkbuild sys = SimplePMOSCircuit(V_s = 5.0, V_b = 2.5, V_d = 3)
 
     prob = ODEProblem(sys, Pair[], (0.0, 10.0))
     sol = solve(prob)
@@ -675,9 +672,9 @@ end
             Vd = Voltage()
             ground = Ground()
 
-            Vs_const = Constant(k=V_s)
-            Vb_const = Constant(k=V_b)
-            Vd_const = Constant(k=V_d)
+            Vs_const = Constant(k = V_s)
+            Vb_const = Constant(k = V_b)
+            Vd_const = Constant(k = V_d)
         end
 
         @parameters begin
@@ -689,7 +686,7 @@ end
             #voltage sources
             connect(Vs_const.output, Vs.V)
             connect(Vb_const.output, Vb.V)
-            connect(Vd_const.output, Vd.V )
+            connect(Vd_const.output, Vd.V)
 
             #ground connections
             connect(Vs.n, Vb.n, ground.g, Vd.n)
@@ -701,15 +698,13 @@ end
         end
     end
 
-    @mtkbuild flipped_sys = FlippedPMOSCircuit(V_s=5.0, V_b=2.5, V_d = 3)
+    @mtkbuild flipped_sys = FlippedPMOSCircuit(V_s = 5.0, V_b = 2.5, V_d = 3)
 
     flipped_prob = ODEProblem(flipped_sys, Pair[], (0.0, 10.0))
     flipped_sol = solve(flipped_prob)
 
     @test flipped_sol[flipped_sys.Q1.d.i][1] > 0.0
     @test flipped_sol[flipped_sys.Q1.s.i][1] < 0.0
-
-
 end
 
 @testset "NPN Tests" begin
@@ -867,7 +862,8 @@ end
 
     @mtkcompile sys = SimplePNPCircuitSubstrate(V_b = 0.70)
 
-    prob = ODEProblem(sys, [sys.Q1.c.i => 0.0], (0.0, 10.0); guesses = [sys.Q1.I_sub => 1.0])
+    prob = ODEProblem(
+        sys, [sys.Q1.c.i => 0.0], (0.0, 10.0); guesses = [sys.Q1.I_sub => 1.0])
     sol = solve(prob)
 
     @test isapprox(

test/Hydraulic/isothermal_compressible.jl

@@ -98,7 +98,8 @@ end
 end
 
 @testset "DynamicVolume and minimum_volume feature" begin # Need help here
-    function TestSystem(; name, area = 0.01, length = 0.1, damping_volume = length * area * 0.1)
+    function TestSystem(;
+            name, area = 0.01, length = 0.1, damping_volume = length * area * 0.1)
         pars = []
 
         # DynamicVolume values

test/Mechanical/rotational.jl

@@ -89,8 +89,10 @@ end
 
     @mtkcompile sys = TwoInertiasWithDrivingTorque()
     deqs = [eq.lhs => eq.rhs for eq in equations(sys)]
-    prob = DAEProblem(sys, [deqs;
-        D(D(sys.inertia2.phi)) => 1.0; sys.spring.flange_b.phi => 0.0], (0, 10.0))
+    prob = DAEProblem(
+        sys, [deqs;
+              D(D(sys.inertia2.phi)) => 1.0; sys.spring.flange_b.phi => 0.0],
+        (0, 10.0))
     sol = solve(prob, DFBDF())
     @test SciMLBase.successful_retcode(sol)
 
@@ -216,8 +218,10 @@ end
     end
 
     @mtkcompile sys = StickSlip()
-    prob = DAEProblem(sys, [D.(unknowns(sys)) .=> 0.0;
-        [sys.inertia.flange_b.tau => 0.0; unknowns(sys) .=> 0.0...]], (0, 10.0))
+    prob = DAEProblem(sys,
+        [D.(unknowns(sys)) .=> 0.0;
+         [sys.inertia.flange_b.tau => 0.0; unknowns(sys) .=> 0.0...]],
+        (0, 10.0))
 
     sol = solve(prob, DFBDF())
     @test SciMLBase.successful_retcode(sol)