missed a couple of doc updates in xferfcn · python-control/python-control@a631098

Original file line number	Diff line number	Diff line change
`@@ -237,22 +237,26 @@ def __call__(self, x, squeeze=True):`
`237`	`237`	Returns the complex frequency response `sys(x)` where `x` is `s` for
`238`	`238`	continuous-time systems and `z` for discrete-time systems.
`239`	`239`
	`240`	`+ In general the system may be multiple input, multiple output (MIMO), where`
	`241`	+ `m = self.inputs` number of inputs and `p = self.outputs` number of
	`242`	`+ outputs.`
	`243`	`+`
`240`	`244`	`To evaluate at a frequency omega in radians per second, enter`
`241`	`245`	``x = omega * 1j``, for continuous-time systems, or
`242`	`246`	``x = exp(1j * omega * dt)`` for discrete-time systems. Or use
`243`	`247`	:meth:`TransferFunction.frequency_response`.
`244`	`248`
`245`	`249`	`Parameters`
`246`	`250`	`----------`
`247`		`- x: complex array_like or complex`
	`251`	`+ x : complex array_like or complex`
`248`	`252`	`Complex frequencies`
`249`		`- squeeze: bool, optional (default=True)`
	`253`	`+ squeeze : bool, optional (default=True)`
`250`	`254`	If True and `sys` is single input single output (SISO), returns a
`251`		- 1D array or scalar depending on the length of `x`.
	`255`	`+ 1D array rather than a 3D array.`
`252`	`256`
`253`	`257`	`Returns`
`254`	`258`	`-------`
`255`		`- fresp : (self.outputs, self.inputs, len(x)) or len(x) complex ndarray`
	`259`	`+ fresp : (p, m, len(x)) complex ndarray or or (len(x), ) complex ndarray`
`256`	`260`	The frequency response of the system. Array is `len(x)` if and
`257`	`261`	only if system is SISO and ``squeeze=True``.
`258`	`262`