Electrical formatting changes

src/Electrical/Analog/ideal_components.jl

@@ -1,12 +1,10 @@
 """
-```julia
-function Ground(; name)
-```
+    Ground(; name)
 
 Ground node with the potential of zero and connector `g`. Every circuit must have one ground
 node.
 
-# Connectors
+# Connectors:
 - `g`
 """
 function Ground(;name)
@@ -16,25 +14,19 @@ function Ground(;name)
 end
 
 """
-```julia
-function Resistor(; name, R)
-```
+    Resistor(; name, R)
 
 Creates an ideal Resistor following Ohm's Law.
 
-# States
-- `v(t)`: [`V`]
-  The voltage across the resistor, given by `p.i * R`
+# States:
+See [OnePort](@ref)
 
-# Connectors
-- `p`
-  Positive pin
-- `n`
-  Negative pin
+# Connectors:
+- `p` Positive pin
+- `n` Negative pin
 
 # Parameters: 
-- `R`: [`Ω`]
-  Resistance
+- `R`: [`Ω`] Resistance
 """
 function Resistor(;name, R)
     @named oneport = OnePort()
@@ -49,16 +41,16 @@ end
 """
     Conductor(;name, G)
 
-Ideal linear electrical conductor.
+Creates an ideal conductor.
 
-# States
-- see [`OnePort`](@ref)
+# States:
+See [OnePort](@ref)
 
-# Connectors
+# Connectors:
 - `p` Positive pin
 - `n` Negative pin
 
-# Parameters: 
+# Parameters:
 - `G`: [`S`] Conductance
 """
 function Conductor(;name, G)
@@ -72,27 +64,22 @@ function Conductor(;name, G)
 end
 
 """
-```julia
-function Capacitor(; name, C)
-```
+    Capacitor(; name, C)
+
 
-Creates an ideal Capacitor.
+Creates an ideal capacitor.
 
-# States
+# States:
 - `v(t)`: [`V`]
   The voltage across the capacitor, given by `D(v) ~ p.i / C`
 
-# Connectors
-- `p`
-  Positive pin
-- `n`
-  Negative pin
+# Connectors:
+- `p` Positive pin
+- `n` Negative pin
 
 # Parameters:
-- `C`: [`F`]
-  Capacitance
-- `v_start`: [`V`]
-  Initial voltage of capacitor
+- `C`: [`F`] Capacitance
+- `v_start`: [`V`] Initial voltage of capacitor
 """
 function Capacitor(;name, C, v_start=0.0) 
     @named oneport = OnePort(;v_start=v_start)
@@ -105,27 +92,20 @@ function Capacitor(;name, C, v_start=0.0)
 end
 
 """
-```julia
-function Inductor(; name, L)
-```
+    Inductor(; name, L)
 
 Creates an ideal Inductor.
 
-# States
-- `v(t)`: [`V`]
-  The voltage across the inductor, given by `D(p.i) ~ v / L`
+# States:
+See [OnePort](@ref)
 
-# Connectors
-- `p`
-  Positive pin
-- `n`
-  Negative pin
+# Connectors:
+- `p` Positive pin
+- `n` Negative pin
 
 # Parameters:
-- `L`: [`H`]
-  Inductance
-- `i_start`: [`A`]
-  Initial current through inductor
+- `L`: [`H`] Inductance
+- `i_start`: [`A`] Initial current through inductor
 """
 function Inductor(;name, L, i_start=0.0)
     @named oneport = OnePort(;i_start=i_start)
@@ -138,33 +118,23 @@ function Inductor(;name, L, i_start=0.0)
 end
 
 """
-```julia
-function IdealOpAmp(; name)
-```
+    IdealOpAmp(; name)
 
 Ideal operational amplifier (norator-nullator pair).
 The ideal OpAmp is a two-port. The left port is fixed to `v1 = 0` and `i1 = 0` (nullator). 
 At the right port both any voltage `v2` and any current `i2` are possible (norator).
 
-# States
-- `v1(t)`: [`V`]
-  Voltage of left port
-- `v2(t)`: [`V`]
-  Voltage of right port
-- `i1(t)`: [`A`]
-  Current of left port
-- `i2(t)`: [`A`]
-  Current of right port
-
-# Connectors
-- `p1`
-  Positive pin (left port)
-- `p2`
-  Positive pin (right port)
-- `n1`
-  Negative pin (left port)
-- `n2`
-  Negative pin (right port)
+# States:
+- `v1(t)`: [`V`] Voltage of left port
+- `v2(t)`: [`V`] Voltage of right port
+- `i1(t)`: [`A`] Current of left port
+- `i2(t)`: [`A`] Current of right port
+
+# Connectors:
+- `p1` Positive pin (left port)
+- `p2` Positive pin (right port)
+- `n1` Negative pin (left port)
+- `n2` Negative pin (right port)
 """
 function IdealOpAmp(;name)
     @named p1 = Pin()

src/Electrical/Analog/sensors.jl

@@ -1,20 +1,15 @@
 """
-```julia
-function CurrentSensor(; name)
-```
+  CurrentSensor(; name)
 
 Creates a circuit component that measures the current flowing through it. Analogous to
 an ideal ammeter.
 
-# States
-- `i(t)`: [`A`]
-  Current through the sensor
+# States:
+- `i(t)`: [`A`] Current through the sensor
 
-# Connectors
-- `p`
- Positive pin
-- `n`
-  Negative pin
+# Connectors:
+- `p` Positive pin
+- `n` Negative pin
 """
 function CurrentSensor(; name)
     @named p = Pin()
@@ -29,19 +24,15 @@ function CurrentSensor(; name)
 end
 
 """
-```julia
-function PotentialSensor(; name)
-```
+  PotentialSensor(; name)
 
 Creates a circuit component which measures the potential at a pin.
 
-# States
-- `phi(t)`: [`V`]
-  The potential at this point
+# States:
+- `phi(t)`: [`V`] The measured potential at this point
 
-# Connectors
-- `p`
-  Pin at which potential is to be measured
+# Connectors:
+- `p` Pin at which potential is to be measured
 """
 function PotentialSensor(; name)
     @named p = Pin()
@@ -54,22 +45,16 @@ function PotentialSensor(; name)
 end
 
 """
-```julia
-function VoltageSensor(; name)
-```
+  VoltageSensor(; name)
 
-Creates a circuit component that measures the voltage across it. Analogous to
-an ideal voltmeter.
+Creates a circuit component that measures the voltage across it. Analogous to an ideal voltmeter.
 
-# States
-- `v(t)`: [`V`]
-  The voltage across this component
+# States:
+- `v(t)`: [`V`] The voltage difference form positive to negative pin `p.v - n.v`
 
-# Connectors
-- `p`
-  Positive pin
-- `n`
-  Negative pin
+# Connectors:
+- `p` Positive pin
+- `n` Negative pin
 """
 function VoltageSensor(; name)
     @named p = Pin()
@@ -84,26 +69,21 @@ function VoltageSensor(; name)
 end
 
 """
-```julia
-function PowerSensor(; name)
-```
+  PowerSensor(; name)
 
 Combines a [`VoltageSensor`](@ref) and a [`CurrentSensor`](@ref) to measure the power being
 consumed by a circuit.
 
-# States
-- `power(t)`: [`W`]
-  The power being consumed, given by the product of voltage and current.
-
-# Connectors
-- `pc`
-  Corresponds to the `p` pin of the [`CurrentSensor`](@ref)
-- `nc`
-  Corresponds to the `n` pin of the [`CurrentSensor`](@ref)
-- `pv`
-  Corresponds to the `p` pin of the [`VoltageSensor`](@ref)
-- `nv`
-  Corresponds to the `n` pin of the [`VoltageSensor`](@ref)
+# States:
+- `power(t)`: [`W`] The power being consumed, given by the product of voltage and current.
+- See [VoltageSensor](@ref)
+- See [CurrentSensor](@ref)
+
+# Connectors:
+- `pc` Corresponds to the `p` pin of the [`CurrentSensor`](@ref)
+- `nc` Corresponds to the `n` pin of the [`CurrentSensor`](@ref)
+- `pv` Corresponds to the `p` pin of the [`VoltageSensor`](@ref)
+- `nv` Corresponds to the `n` pin of the [`VoltageSensor`](@ref)
 """
 function PowerSensor(; name)
     @named pc = Pin()
@@ -124,27 +104,19 @@ function PowerSensor(; name)
 end
 
 """
-```julia
-function MultiSensor(; name)
-```
+  MultiSensor(; name)
 
 Combines a [`VoltageSensor`](@ref) and a [`CurrentSensor`](@ref).
 
-# States
-- `v(t)`: [`V`]
-  The voltage across the [`VoltageSensor`](@ref)
-- `i(t)`: [`A`]
-  The current across the [`CurrentSensor`](@ref)
-
-# Connectors
-- `pc`
-  Corresponds to the `p` pin of the [`CurrentSensor`](@ref)
-- `nc`
-  Corresponds to the `n` pin of the [`CurrentSensor`](@ref)
-- `pv`
-  Corresponds to the `p` pin of the [`VoltageSensor`](@ref)
-- `nv`
-  Corresponds to the `n` pin of the [`VoltageSensor`](@ref)
+# States:
+- `v(t)`: [`V`] The voltage across the [`VoltageSensor`](@ref)
+- `i(t)`: [`A`] The current across the [`CurrentSensor`](@ref)
+
+# Connectors:
+- `pc` Corresponds to the `p` pin of the [`CurrentSensor`](@ref)
+- `nc` Corresponds to the `n` pin of the [`CurrentSensor`](@ref)
+- `pv` Corresponds to the `p` pin of the [`VoltageSensor`](@ref)
+- `nv` Corresponds to the `n` pin of the [`VoltageSensor`](@ref)
 """
 function MultiSensor(; name)
     @named pc = Pin()

src/Electrical/Analog/sources.jl

@@ -1,8 +1,15 @@
 """
     Voltage(;name)   
 
-Acts as voltage signal.
+Acts as an ideal voltage source with no internal resistance.
 
+# States:
+See [OnePort](@ref)
+
+# Connectors:
+- `p` Positive pin
+- `n` Negative pin
+- `V` [RealInput](@ref) Input for the voltage control signal, i.e. `V ~ p.v - n.v`
 """
 function Voltage(;name)   
     @named oneport = OnePort()
@@ -18,8 +25,15 @@ end
 """
     Current(;name)   
 
-Acts as current signal.
+Acts as an ideal current source with no internal resistance.
+
+# States:
+See [OnePort](@ref)
 
+# Connectors:
+- `p` Positive pin
+- `n` Negative pin
+- `I` [RealInput](@ref) Input for the current control signal, i.e. `I ~ p.i
 """
 function Current(;name)   
     @named oneport = OnePort()