Investigation of a Novel Linear Partitioned Primary Hybrid-excited Consequent-pole Flux-reversal Permanent Magnet Machine
ID:139 View Protection:ATTENDEE Updated Time:2021-06-28 13:28:10 Hits:1595 Oral Presentation

Start Time:2021-07-02 10:50(Asia/Shanghai)

Duration:20min

Session:S3 Concurrent Session 3 » S3-1Oral Session 3 & 6

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Abstract
This paper proposes a novel linear partitioned hybrid-excited consequent-pole flux-reversal machine featuring a wide flux adjusting range with less PM consumption. Due to the space confliction between armature and field windings in conventional hybrid-excited machine, the consequent-pole partitioned primary structure is employed to improve the PM utilization ratio and further enhance the flux regulation capability. Firstly, the topology, operation principle and flux regulation principle are introduced. Then, using finite element method (FEM), the dimensional parameters of the proposed machine and a conventional machine for comparison are globally optimized for higher thrust force and wider flux adjusting range. The electrical performance of optimized structures including open-circuit phase back-electromotive force (back-EMF), flux adjusting capability and force characteristics are investigated. The proposed machine is observed to have better flux regulation capability than conventional machine with improved PM utilization ratio, which means it is suitable for wide speed range system applications.
Keywords
Partitioned primary, hybrid-excited, consequent-pole, flux-reversal, linear machine,flux adjusting capability
Speaker
Bocheng Wu
Zhejiang University

Submission Author
Yanxin Li Zhejiang University
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  • Conference Date

    Jul 01

    2021

    to

    Jul 04

    2021

  • Jul 03 2021

    Contribution Submission Deadline

  • Nov 03 2021

    Registration deadline

Sponsored By
Huazhong University of Science and Technology, China
Supported By
University of Sydney, Australia
Southwest Jiaotong University, China
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