源自电磁学的分数阶电路元件

T. Stefański, J. Gulgowski
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引用次数: 1

摘要

本文从电磁学的角度推导了分数阶电路元件方程。虽然许多论文都致力于电路的FO建模,但这种方法没有坚实的基础。因此,我们研究了FO电磁特性与FO电路理论之间的关系。我们的推导从具有FO本构关系的介质中麦克斯韦方程组的准静态近似开始。在此基础上,导出了具有近似适用条件的FO集总元方程。如果FO电容器/电感满足导出的条件,则与所考虑的FO元件中的电场/磁场能量相比,磁场/电场的能量可以忽略不计。然后,我们证明了可以在输入电路元件的电磁功率相等的前提下推导出FO集总元件参数,并计算为电流与电压的乘积。所获得的结果支持研究人员和工程师在电气和电子工程中使用FO建模。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Fractional Order Circuit Elements Derived from Electromagnetism
In this paper, derivations of fractional-order (FO) circuit-element equations from electromagnetism are presented. Whilst many papers are devoted to FO modelling of electrical circuits, there are no strong foundations for such an approach. Therefore, we investigate relations between the FO electromagnetism and the FO circuit theory. Our derivations start from quasi-static (QS) approximations of Maxwell’s equations in media with FO constitutive relations. Hence, FO lumped-element equations are derived which are supported by an approximate applicability condition. If the FO capacitor/inductor satisfies the derived condition, then the energy of the magnetic/electric field is negligible in comparison to the energy of the electric/magnetic field in the considered FO element. Then, we demonstrate that FO lumped-element parameters can be derived assuming the equality of electromagnetic power flowing into the circuit element and calculated as the current and voltage product.The obtained results support researchers and engineers employing FO modelling in electrical and electronics engineering.
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