4.6 Article

Performance Improvement of Dual Stator Axial Flux Spoke Type Permanent Magnet Vernier Machine

期刊

IEEE ACCESS
卷 9, 期 -, 页码 64179-64188

出版社

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/ACCESS.2021.3076111

关键词

Torque; Rotors; Stator windings; Magnetic flux; Permanent magnets; Stator cores; Topology; Axial flux; cogging torque; dual stator axial flux machine; flux focusing effect; magnetic gearing effect; torque ripples; vernier machine; finite element method

资金

  1. Basic Science Research Program through the National Research Foundation of Korea by the Ministry of Education [2016R1D1A1B01008058]
  2. Brain Pool (BP) Program through the National Research Foundation of Korea (NRF) by the Ministry of Science and ICT [2019H1D3A1A01102988]

向作者/读者索取更多资源

This paper introduces the performance improvement of a dual stator axial-flux spoke type permanent magnet vernier machine, which can generate high torque at low speeds due to the magnetic gearing effect. A proposed PM shape with notches reduces cogging torque and torque ripples. Optimization of magnet shape makes the optimized model more competitive, with comparisons of various parameters using 3D finite element method.
This paper presents performance improvement of dual stator axial-flux spoke type permanent magnet vernier machine (DSAFST-PMVM), which has the capability to generate high torque at a lower speed due to magnetic gearing effect. Flux focusing effect is created by means of dual stator single rotor topology with spoke type permanent magnets. It is best suitable for high-performance industrial applications such as servo motors, robot arms, wind power, electric vehicles, and elevator applications. A PM shape is proposed in this paper which has notches in such a way that it produces discrete skew effect which reduces the cogging torque and torque ripples. Optimization of magnet shape is done to make the optimized model more competitive than the proposed and basic models. Main parameters such as back emf, cogging torque, torque ripples, electromagnetic torque, VTHD, airgap flux densities, flux density distribution, power factor, and power of the machine are compared among the basic model, proposed model, and optimized models. The comparative analysis is done by using the time stepped 3D finite element method.

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