Improved System Identification Scheme for the Linear Representation of the Passive Electromagnetic Structures

Shevgunov, Timofey; Baev, Andrey; Kuznetsov, Yu.V.; Russer, P.

doi:10.1109/mikon.2006.4345351

Cited by 1 publication

(2 citation statements)

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“…In other words, each harmonic of nonzero physical frequency kF is represented by two complex exponentials, exp(j2πf ), of frequencies ±kF, whose complex valued amplitude are defined using (5) as soon as physical amplitude and phase are defined. These complex exponentials provide a reasonable mathematical model, which is often more convenient than an amplitude-phase form for performing the vast majority of formal manipulation.…”

Section: Voltage Current and Instantenious Power Definitionsmentioning

confidence: 99%

“…An alternative approach proposes the extra inclusion of an idealized transmission line, while the lumped element remains the resonant circuit [5]. Models of this type showed high performance in cases where the natural resonances are rather smooth or the introduction of transmission line can be proved with geometric or physical reasoning [6].…”

Section: Introductionmentioning

confidence: 99%

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Cyclostationary Approach to the Analysis of the Power in Electric Circuits under Periodic Excitations

2021

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This paper proposes a cyclostationary based approach to power analysis carried out for electric circuits under arbitrary periodic excitation. Instantaneous power is considered to be a particular case of the two-dimensional cross correlation function (CCF) of the voltage across, and current through, an element in the electric circuit. The cyclostationary notation is used for deriving the frequency domain counterpart of CCF—voltage–current cross spectrum correlation function (CSCF). Not only does the latter exhibit the complete representation of voltage–current interaction in the element, but it can be systematically exploited for evaluating all commonly used power measures, including instantaneous power, in the form of Fourier series expansion. Simulation examples, which are given for the parallel resonant circuit excited by the periodic currents expressed as a finite sum of sinusoids and periodic train of pulses with distorted edges, numerically illustrate the components of voltage–current CSCF and the characteristics derived from it. In addition, the generalization of Tellegen’s theorem, suggested in the paper, leads to the immediate formulation of the power conservation law for each CSCF component separately.

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Section: Voltage Current and Instantenious Power Definitionsmentioning

confidence: 99%

Section: Introductionmentioning

confidence: 99%