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High-Frequency Model of the Coupled Inductors Used in EMI Filters

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3 Author(s)
Jean-Luc Kotny ; Laboratory of Electrical Engineering and Power Electronics, University of Lille 1, Villeneuve d’Ascq, France ; Xavier Margueron ; Nadir Idir

This paper deals with a high-frequency modeling method of the coupled inductors used in electromagnetic interference (EMI) filters. These filters are intended to reduce conducted emissions generated by power static converters towards the power grid. To model the EMI filters, it is necessary to identify the various parameters of the passive elements: inductors and capacitors. Because of their major impact on filter efficiency, these elements must be identified with accuracy. In this study, high-frequency model of common-mode-coupled inductors is proposed. The identification of the model parameters is based on the experimental approach. Simulation results of the proposed model are compared to the experimental data obtained using the specific experimental setup. These results made it possible to validate the EMI filter model and its robustness in a frequency range varying from 9 kHz to 30 MHz. The proposed high-frequency inductor models will be very helpful for design and optimization of EMI filters, since the high-frequency behavior of the filter mainly depends on magnetic materials used and on the geometrical characteristics of winding.

Published in:

IEEE Transactions on Power Electronics  (Volume:27 ,  Issue: 6 )