Modelling Axial Nonuniformity in Induction Machines Using a Multislice Magnetic Equivalent Circuit

The presence of axial nonuniformity poses challenges in the modelling of induction machines (IMs) by disrupting the machine cross-sectional consistency. To tackle these challenges, this article presents a multislice magnetic equivalent circuit (MEC)-based modelling approach. In this model, a machine with axial nonuniformity is partitioned into axially uniform sections along its axial direction, each treated as a slice. The length, angular displacement, and radial translation of each slice are determined using Gaussian discretisation. MECs are constructed for all slices and integrated under an identical current excitation, forming a multislice magnetic circuit model. The resultant magnetic circuit equations are combined with temporally discretised electrical circuit equations, establishing a strong electromagnetic coupling. This electromagnetic model is further weakly coupled with a mechanical model to fully characterise machine dynamics, thus completing an electro-magneto-mechanical coupling. The effectiveness of the proposed modelling approach is confirmed through experimental validation.

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Publication Details

Journal
IEEE Transactions on Industrial Electronics
Published
2024-11-20
DOI
https://doi.org/10.1109/tie.2024.3488354
Primary Topic
Electric Motor Design and Analysis
Type
article
Field-Weighted Citation Impact
0.00

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article

Modelling Axial Nonuniformity in Induction Machines Using a Multislice Magnetic Equivalent Circuit

Davy Pissoort, Dries Vanoost, Hans Hallez, Philip Desenfans et al.
IEEE Transactions on Industrial Electronics
Electric Motor Design and Analysis
article

Modelling Axial Nonuniformity in Induction Machines Using a Multislice Magnetic Equivalent Circuit

Davy Pissoort, Dries Vanoost, Hans Hallez, Philip Desenfans, Zifeng Gong
article en

Abstract

The presence of axial nonuniformity poses challenges in the modelling of induction machines (IMs) by disrupting the machine cross-sectional consistency. To tackle these challenges, this article presents a multislice magnetic equivalent circuit (MEC)-based modelling approach. In this model, a machine with axial nonuniformity is partitioned into axially uniform sections along its axial direction, each treated as a slice. The length, angular displacement, and radial translation of each slice are determined using Gaussian discretisation. MECs are constructed for all slices and integrated under an identical current excitation, forming a multislice magnetic circuit model. The resultant magnetic circuit equations are combined with temporally discretised electrical circuit equations, establishing a strong electromagnetic coupling. This electromagnetic model is further weakly coupled with a mechanical model to fully characterise machine dynamics, thus completing an electro-magneto-mechanical coupling. The effectiveness of the proposed modelling approach is confirmed through experimental validation.

IEEE Transactions on Industrial ElectronicsVol. 72(6)
KU Leuven (BE)
China Scholarship Council
Affordable and clean energy
Openalex Percentile: Top 81%
Electric Motor Design and Analysis
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