Comparative Study of Permanent Magnet, Conventional, and Advanced Induction Machines for Traction Applications

Tayfun Gundogdu; Zi Qiang Zhu; Ching Chuen Chan

doi:10.3390/wevj13080137

Comparative Study of Permanent Magnet, Conventional, and Advanced Induction Machines for Traction Applications

Tayfun Gundogdu, Zi Qiang Zhu, Ching Chuen Chan

Research output: Journal article publication › Journal article › Academic research › peer-review

19 Citations (Scopus)

Abstract

This paper investigates and compares the torque-generating capabilities and electromagnetic performance of advanced non-overlapping winding induction machines (AIM), conventional induction machines (CIM), and interior-permanent magnet (IPM) machines for electric vehicle (EV) applications. All investigated machines are designed based on the specifications of the Toyota Prius 2010 IPM machine. The steady-state and flux-weakening performance characteristics are calculated by employing the 2D finite element method and MatLab, and the obtained results are quantitatively compared. Furthermore, the torque-generating capabilities of three machines are investigated for different electric loadings, and the machine having the highest torque-generating capability is determined as AIM. Moreover, the major parameters affecting the torque-generating capability, such as magnetic saturation and magnet demagnetization, are examined in depth.

Original language	English
Article number	137
Journal	World Electric Vehicle Journal
Volume	13
Issue number	8
DOIs	https://doi.org/10.3390/wevj13080137
Publication status	Published - Aug 2022
Externally published	Yes

Keywords

electric vehicles
induction machine
interior permanent magnet machine
non-overlapping winding
saliency
torque capability

ASJC Scopus subject areas

Automotive Engineering

More information

10.3390/wevj13080137

Cite this

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title = "Comparative Study of Permanent Magnet, Conventional, and Advanced Induction Machines for Traction Applications",

abstract = "This paper investigates and compares the torque-generating capabilities and electromagnetic performance of advanced non-overlapping winding induction machines (AIM), conventional induction machines (CIM), and interior-permanent magnet (IPM) machines for electric vehicle (EV) applications. All investigated machines are designed based on the specifications of the Toyota Prius 2010 IPM machine. The steady-state and flux-weakening performance characteristics are calculated by employing the 2D finite element method and MatLab, and the obtained results are quantitatively compared. Furthermore, the torque-generating capabilities of three machines are investigated for different electric loadings, and the machine having the highest torque-generating capability is determined as AIM. Moreover, the major parameters affecting the torque-generating capability, such as magnetic saturation and magnet demagnetization, are examined in depth.",

keywords = "electric vehicles, induction machine, interior permanent magnet machine, non-overlapping winding, saliency, torque capability",

author = "Tayfun Gundogdu and Zhu, {Zi Qiang} and Chan, {Ching Chuen}",

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AU - Gundogdu, Tayfun

AU - Zhu, Zi Qiang

AU - Chan, Ching Chuen

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Y1 - 2022/8

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AB - This paper investigates and compares the torque-generating capabilities and electromagnetic performance of advanced non-overlapping winding induction machines (AIM), conventional induction machines (CIM), and interior-permanent magnet (IPM) machines for electric vehicle (EV) applications. All investigated machines are designed based on the specifications of the Toyota Prius 2010 IPM machine. The steady-state and flux-weakening performance characteristics are calculated by employing the 2D finite element method and MatLab, and the obtained results are quantitatively compared. Furthermore, the torque-generating capabilities of three machines are investigated for different electric loadings, and the machine having the highest torque-generating capability is determined as AIM. Moreover, the major parameters affecting the torque-generating capability, such as magnetic saturation and magnet demagnetization, are examined in depth.

KW - electric vehicles

KW - induction machine

KW - interior permanent magnet machine

KW - non-overlapping winding

KW - saliency

KW - torque capability

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DO - 10.3390/wevj13080137

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Comparative Study of Permanent Magnet, Conventional, and Advanced Induction Machines for Traction Applications

Abstract

Keywords

ASJC Scopus subject areas

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