lcapy.oneport.ParSer

class lcapy.oneport.ParSer

Bases: OnePort

Parallel/serial class

Methods

`expand`()	Expand compound components such as crystals or ferrite bead models into
`latex`()	\(\LaTeX\) string representation of the component.
`noise_model`()	Convert to noise model representation.
`pprint`()	Prints a pretty string representation of the component to the console.
`pretty`(**kwargs)	'Pretty' string representation of the component.
`s_model`()	Converts the model to s-domain.
`simplify`([deep])	Performs simple simplifications.

Attributes

`Isc`	Short circuit current
`Voc`	Open circuit voltage
`has_independent_source`	bool(x) -> bool

property Isc

Short circuit current

Return type:: The short circuit current.

property Voc

Open circuit voltage

Return type:: The open circuit voltage.

expand()

Expand compound components such as crystals or ferrite bead models into: R, L, G, C, V, I.

property has_independent_source

bool(x) -> bool

Returns True when the argument x is true, False otherwise. The builtins True and False are the only two instances of the class bool. The class bool is a subclass of the class int, and cannot be subclassed.

latex(): \(\LaTeX\) string representation of the component. :returns: A latex string representation of the component. :rtype: str

noise_model()

Convert to noise model representation.

Return type:: The noise model representation.

pprint()

Prints a pretty string representation of the component to the console.

Examples

>>> print(Par(R(3), R(2)).simplify())
R(ConstantDomainExpression(6/5))
>>> Par(R(3), R(2)).simplify().pprint()
R(6/5)

pretty(**kwargs)

‘Pretty’ string representation of the component.

Returns:: A string representation of the component.
Return type:: str

Examples

>>> print(Par(R(3), R(2)).simplify())
R(ConstantDomainExpression(6/5))
>>> print(Par(R(3), R(2)).simplify().pretty())
R(6/5)

s_model()

Converts the model to s-domain.

Return type:: The s-domain model.

simplify(deep=True)

Performs simple simplifications.

These simplifications may include parallel resistors, series inductors, etc., rather than collapsing to a Thevenin or Norton network.

Parameters:: deep – TODO: appears unused

Warning

This does not expand compound components such as crystal or ferrite bead models. Use expand() first.

Examples

>>> Par(Par(R(3), R(2)), I(2)).pprint()
R(3) | R(2) | I(2)
>>> Par(Par(R(3), R(2)), I(2)).simplify().pprint()
R(6/5) | I(2)