Struct TwoTerminalIoView

pub struct TwoTerminalIoView<SubstrateV>
where
    InOut<Signal>: HasView<SubstrateV>,
{
    pub p: <InOut<Signal> as HasView<SubstrateV>>::View,
    pub n: <InOut<Signal> as HasView<SubstrateV>>::View,
}

The interface for 2-terminal blocks.

Fields

p: <InOut<Signal> as HasView<SubstrateV>>::View

The positive terminal.

n: <InOut<Signal> as HasView<SubstrateV>>::View

The negative terminal.

Implementations

impl TwoTerminalIoView<NodeBundle>

where InOut<Signal>: HasSchematicBundleKindViews, Self: HasBundleKind<BundleKind: SchematicBundleKind<NodeBundle = Self>>,

pub fn view_as<SubstrateT: HasBundleKind<BundleKind: SchematicBundleKind>>( &self, ) -> NodeBundle<<SubstrateT as HasBundleKind>::BundleKind>

where <Self as HasBundleKind>::BundleKind: DataView<<SubstrateT as HasBundleKind>::BundleKind>,

Views this bundle as a bundle of a different kind.

impl TwoTerminalIoView<TerminalBundle>

where InOut<Signal>: HasSchematicBundleKindViews, Self: HasBundleKind<BundleKind: SchematicBundleKind<TerminalBundle = Self>>,

pub fn view_as<SubstrateT: HasBundleKind<BundleKind: SchematicBundleKind>>( &self, ) -> TerminalBundle<<SubstrateT as HasBundleKind>::BundleKind>

where <Self as HasBundleKind>::BundleKind: DataView<<SubstrateT as HasBundleKind>::BundleKind>,

Views this bundle as a bundle of a different kind.

pub fn node_bundle(&self) -> NodeBundle<<Self as HasBundleKind>::BundleKind>

Views this terminal bundle as a node bundle of the same kind.

Trait Implementations

impl<SubstrateV> FlatLen for TwoTerminalIoView<SubstrateV>

where InOut<Signal>: HasView<SubstrateV>, <InOut<Signal> as HasView<SubstrateV>>::View: FlatLen,

fn len(&self) -> usize

The length of the flattened list.

fn is_empty(&self) -> bool

Whether or not the flattened representation is empty.

impl<SubstrateV, SubstrateF> Flatten<SubstrateF> for TwoTerminalIoView<SubstrateV>

where InOut<Signal>: HasView<SubstrateV>, <InOut<Signal> as HasView<SubstrateV>>::View: Flatten<SubstrateF>,

fn flatten<E>(&self, __substrate_output_sink: &mut E)

where E: Extend<SubstrateF>,

Flatten a structure into a list.

fn flatten_vec(&self) -> Vec<T>

Flatten into a Vec.

impl<SubstrateV> HasBundleKind for TwoTerminalIoView<SubstrateV>

where InOut<Signal>: HasView<SubstrateV> + HasBundleKind, <InOut<Signal> as HasView<SubstrateV>>::View: HasBundleKind<BundleKind = <InOut<Signal> as HasBundleKind>::BundleKind> + HasBundleKind,

type BundleKind = TwoTerminalIoKind

The Rust type of the BundleKind associated with this bundle.

fn kind(&self) -> <Self as HasBundleKind>::BundleKind

Returns the BundleKind of this bundle.

impl HasNestedView for TwoTerminalIoView<NestedNodeBundle>

where InOut<Signal>: HasSchematicBundleKindViews, <InOut<Signal> as HasView<NestedNodeBundle>>::View: HasNestedView<NestedView = <InOut<Signal> as HasView<NestedNodeBundle>>::View> + HasNestedView,

type NestedView = TwoTerminalIoView<NestedNodeBundle>

A view of the nested object.

fn nested_view(&self, __substrate_parent: &InstancePath) -> NestedView<Self>

Creates a nested view of the object given a parent node.

impl HasNestedView for TwoTerminalIoView<NestedTerminalBundle>

where InOut<Signal>: HasSchematicBundleKindViews, <InOut<Signal> as HasView<NestedTerminalBundle>>::View: HasNestedView<NestedView = <InOut<Signal> as HasView<NestedTerminalBundle>>::View> + HasNestedView,

type NestedView = TwoTerminalIoView<NestedTerminalBundle>

A view of the nested object.

fn nested_view(&self, __substrate_parent: &InstancePath) -> NestedView<Self>

Creates a nested view of the object given a parent node.

impl HasNestedView for TwoTerminalIoView<NodeBundle>

where InOut<Signal>: HasSchematicBundleKindViews, <InOut<Signal> as HasView<NodeBundle>>::View: HasNestedView,

type NestedView = TwoTerminalIoView<NestedNodeBundle>

A view of the nested object.

fn nested_view(&self, __substrate_parent: &InstancePath) -> NestedView<Self>

Creates a nested view of the object given a parent node.

impl HasNestedView for TwoTerminalIoView<TerminalBundle>

where InOut<Signal>: HasSchematicBundleKindViews, <InOut<Signal> as HasView<TerminalBundle>>::View: HasNestedView,

type NestedView = TwoTerminalIoView<NestedTerminalBundle>

A view of the nested object.

fn nested_view(&self, __substrate_parent: &InstancePath) -> NestedView<Self>

Creates a nested view of the object given a parent node.

impl<SubstrateS, SubstrateA> Save<SubstrateS, SubstrateA> for TwoTerminalIoView<NestedNodeBundle>

where InOut<Signal>: HasView<NestedNodeBundle>, <InOut<Signal> as HasView<NestedNodeBundle>>::View: Save<SubstrateS, SubstrateA>, SubstrateS: Simulator, SubstrateA: Analysis,

type SaveKey = TwoTerminalIoView<NestedNodeSaveKeyView<SubstrateS, SubstrateA>>

The key type used to address the saved output within the analysis.

type Saved = TwoTerminalIoView<NestedNodeSavedView<SubstrateS, SubstrateA>>

The saved data associated with things object.

fn save( &self, __substrate_ctx: &SimulationContext<SubstrateS>, __substrate_opts: &mut <SubstrateS as Simulator>::Options, ) -> <Self as Save<SubstrateS, SubstrateA>>::SaveKey

Marks the given output for saving, returning a key that can be used to recover the output once the simulation is complete.

fn from_saved( __substrate_output: &<SubstrateA as Analysis>::Output, __substrate_key: &<Self as Save<SubstrateS, SubstrateA>>::SaveKey, ) -> <Self as Save<SubstrateS, SubstrateA>>::Saved

Recovers the desired simulation output from the analysis’s output.

impl<SubstrateS, SubstrateA> Save<SubstrateS, SubstrateA> for TwoTerminalIoView<NestedTerminalBundle>

where InOut<Signal>: HasView<NestedTerminalBundle>, <InOut<Signal> as HasView<NestedTerminalBundle>>::View: Save<SubstrateS, SubstrateA>, SubstrateS: Simulator, SubstrateA: Analysis,

type SaveKey = TwoTerminalIoView<NestedTerminalSaveKeyView<SubstrateS, SubstrateA>>

The key type used to address the saved output within the analysis.

type Saved = TwoTerminalIoView<NestedTerminalSavedView<SubstrateS, SubstrateA>>

The saved data associated with things object.

fn save( &self, __substrate_ctx: &SimulationContext<SubstrateS>, __substrate_opts: &mut <SubstrateS as Simulator>::Options, ) -> <Self as Save<SubstrateS, SubstrateA>>::SaveKey

Marks the given output for saving, returning a key that can be used to recover the output once the simulation is complete.

fn from_saved( __substrate_output: &<SubstrateA as Analysis>::Output, __substrate_key: &<Self as Save<SubstrateS, SubstrateA>>::SaveKey, ) -> <Self as Save<SubstrateS, SubstrateA>>::Saved

Recovers the desired simulation output from the analysis’s output.

impl<SubstrateV> TransformRef for TwoTerminalIoView<SubstrateV>

where InOut<Signal>: HasView<SubstrateV>, <InOut<Signal> as HasView<SubstrateV>>::View: TransformRef,

fn transform_ref(&self, __substrate_transformation: Transformation) -> Self

Applies matrix-vector Transformation trans.

impl<SubstrateV> TranslateRef for TwoTerminalIoView<SubstrateV>

where InOut<Signal>: HasView<SubstrateV>, <InOut<Signal> as HasView<SubstrateV>>::View: TranslateRef,

fn translate_ref(&self, __substrate_point: Point) -> Self

Translates the shape by Point, returning a new shape.

impl<SubstrateV, SubstrateS> Unflatten<TwoTerminalIoKind, SubstrateS> for TwoTerminalIoView<SubstrateV>

where InOut<Signal>: HasView<SubstrateV> + HasBundleKind, <InOut<Signal> as HasView<SubstrateV>>::View: Unflatten<<InOut<Signal> as HasBundleKind>::BundleKind, SubstrateS>,

fn unflatten<SubstrateI>( __substrate_data: &TwoTerminalIoKind, __substrate_source: &mut SubstrateI, ) -> Option<Self>

where SubstrateI: Iterator<Item = SubstrateS>,

Unflatten a structure from an iterator.