A New Three-Level Switched Reluctance Motor Drive for Electric Vehicles

Multilevel power converters have been investigated to improve system-level performance in switched reluctance motor (SRM) drives used in low-voltage applications including electric vehicles. This paper introduces an eight-leg asymmetric three-level power converter that splits the battery into two banks to generate similar operating modes as the conventional three-level asymmetric converters but with improved performance, reduced size, and cost. Unlike the series-connected single battery bank, the proposed split-battery connection offers flexible control and fault tolerance for the SRM drives. The operating modes for the proposed converter are defined, and a current chopping control scheme is presented. The proposed split-battery-driven converter is compared with the standard two-level asymmetric half-bridge converter, and three-level asymmetric converters in terms of cost, efficiency, torque ripple, and current ripple under different operating conditions. The feasibility of the proposed topology is thoroughly tested using a three-phase 12/16 SRM model in MATLAB simulations.

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Publication Details

Published
2024-09-30
DOI
https://doi.org/10.1109/pemc61721.2024.10726378
Primary Topic
Electric Motor Design and Analysis
Type
article
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article

A New Three-Level Switched Reluctance Motor Drive for Electric Vehicles

Mehdi Narimani, Nasir Ali
Electric Motor Design and Analysis
article

A New Three-Level Switched Reluctance Motor Drive for Electric Vehicles

Mehdi Narimani, Nasir Ali
article en

Abstract

Multilevel power converters have been investigated to improve system-level performance in switched reluctance motor (SRM) drives used in low-voltage applications including electric vehicles. This paper introduces an eight-leg asymmetric three-level power converter that splits the battery into two banks to generate similar operating modes as the conventional three-level asymmetric converters but with improved performance, reduced size, and cost. Unlike the series-connected single battery bank, the proposed split-battery connection offers flexible control and fault tolerance for the SRM drives. The operating modes for the proposed converter are defined, and a current chopping control scheme is presented. The proposed split-battery-driven converter is compared with the standard two-level asymmetric half-bridge converter, and three-level asymmetric converters in terms of cost, efficiency, torque ripple, and current ripple under different operating conditions. The feasibility of the proposed topology is thoroughly tested using a three-phase 12/16 SRM model in MATLAB simulations.

McMaster University (CA)
Affordable and clean energy
Openalex Percentile: Top 83%
Electric Motor Design and Analysis
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