skrf.calibration.deembedding.IEEEP370

class skrf.calibration.deembedding.IEEEP370(dummies, name=None, *args, **kwargs)[source]

Abstract Base Class for all IEEEP370 de-embedding class.

This class implements the common mechanisms for all IEEEP370 de-embedding algorithms. Specific algorithms should inherit this class and override the methods: * IEEEP370.deembed() * IEEEP370.split2xthru()

Based on [ElSA20], [I3E3701], [I3E3702], [I3E3703], [I3E3704], and [I3E3705].

References

[ElSA20]

Ellison J, Smith SB, Agili S., “Using a 2x-thru standard to achieve accurate de-embedding of measurements”, Microwave Optical Technology Letter, 2020, https://doi.org/10.1002/mop.32098

[I3E3701]

https://opensource.ieee.org/elec-char/ieee-370/-/blob/master/TG1/IEEEP3702xThru.m, commit 49ddd78cf68ad5a7c0aaa57a73415075b5178aa6

[I3E3702]

https://opensource.ieee.org/elec-char/ieee-370/-/blob/master/TG1/IEEEP370mmZc2xthru.m commit 49ddd78cf68ad5a7c0aaa57a73415075b5178aa6

[I3E3703]

https://opensource.ieee.org/elec-char/ieee-370/-/blob/master/TG1/IEEEP370Zc2xThru.m commit 49ddd78cf68ad5a7c0aaa57a73415075b5178aa6

[I3E3704]

https://opensource.ieee.org/elec-char/ieee-370/-/blob/master/TG1/IEEEP370mmZc2xthru.m commit 49ddd78cf68ad5a7c0aaa57a73415075b5178aa6

[I3E3705]

https://opensource.ieee.org/elec-char/ieee-370/-/blob/master/TG3/qualityCheckFrequencyDomain.m commit 8b8f3a3b5e41aeb4ab16110bbfb683ec52e70206

Parameters:

dummies (Sequence[Network])
name (str)

Methods

`COM_receiver_noise_filter`	receiver filter in COM defined by eq 93A-20 As defined in 802.3-2022 - IEEE Standard for Ethernet annex 93A
`DC`	Advanced reflective DC point extrapolation.
`NRP`	Enforce the Nyquist Rate Point.
`__init__`	IEEEP370 de-embedding Initializer.
`add_dc`	Extrapolate a network to DC using interpolation for all S-parameters.
`dc_interp`	enforces symmetric upon the first 10 points and interpolates the DC point.
`deembed`	Apply de-embedding correction to a Network
`extrapolate_to_dc`	Extrapolate the network to DC using IEEE370 NZC algorithm.
`getz`	Compute step response to get the time-domain impedance from S-parameters.
`makeStep`	Make a time-domain step response from an impulse response.
`makeTL`	Compute the S-parameters of a transmission line.
`peelNPointsLossless`	Peel N points of the network on both side and return the corresponding error boxes.
`shiftNPoints`	Shift the whole network of N samples in time-domain.
`shiftOnePort`	Shift one port of the network of N samples in time-domain.
`split2xthru`	Determine fixtures models
`thru`	Create a perfect thru