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Dual airgap stator- and rotor- permanent magnet machines with spoke-type configurations using phase-group concentrated-coil windings

Authors
Zhao, WenliangKwon, Byung ilLipo, Thomas A.
Issue Date
Sep-2015
Publisher
Institute of Electrical and Electronics Engineers Inc.
Keywords
direct-drive; Dual-rotor; dual-stator; finite element method; permanent magnet machines; phase-group concentrated-coil windings; spoke-type PM; switched flux PM machine; torque
Citation
2015 IEEE Energy Conversion Congress and Exposition, ECCE 2015, v.2015, pp.2805 - 2812
Indexed
SCOPUS
Journal Title
2015 IEEE Energy Conversion Congress and Exposition, ECCE 2015
Volume
2015
Start Page
2805
End Page
2812
URI
https://scholarworks.bwise.kr/erica/handle/2021.sw.erica/20623
DOI
10.1109/ECCE.2015.7310053
ISSN
2329-3721
Abstract
This paper presents an advanced design procedure for stator-based and rotor-based permanent magnet (PM) machines with spoke-type PM configurations for the comprehensive improvement of electromagnetic performance including torque/power density, efficiency, cogging torque, and torque ripple. The dual-rotor switched flux PM machine (SFPMM), designated as the stator-PM machine, and the dual-stator spoke-type interior PM machine (S-IPMM), termed the rotor-PM machine, are investigated with the proposed design method for direct-drive applications, in which the phase-group concentrated-coil windings and an unaligned arrangement of two rotors/stators are utilized, with the aim of enhancing the flux focusing effects for high torque density and suppressing pulsating torques. To evaluate the contribution of the proposed design mechanism on machine performance, a conventional SFPMM with concentrated windings is adopted as the reference model. For a fair comparison, all the investigated machines are designed with the same dimensions, and their performance including back electromotive force (EMF), cogging torque, and electromagnetic torque are analyzed by a finite element method (FEM) under the same operating conditions. Finally, a prototype of the dual-stator S-IPMM is manufactured, and some key simulation results are verified by experimental measurements. © 2015 IEEE.
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