A Quantitative Analysis of a Double-Side Flux-Modulated Permanent Magnet Machine by the Permeance-Magnetomotive-Force Method
Kuang Yang, Jinming Hu, Fei Zhao, Jincheng Yu, Yi Wang
Abstract
Kuang Yang, Jinming Hu, Fei Zhao, Jincheng Yu, Yi Wang
Abstract
Due to inherent high torque density and low pulsating torque, the double-side flux-modulated permanent magnet machines (DS-FMPMMs), which are mounted with PMs on both the stator and rotor, have attracted extensive research attention. DS-FMPMMs have affluent air-gap magnetic field harmonics, which makes this type of machine difficult to analyze quantitatively. In this paper, a quantitative permeance-magnetomotive force (P-MMF) is adopted to obtain the electromagnetic performances of the proposed DS-FMPMMs. In addition, the modulation mechanisms are revealed insightfully in the double-side PMs MMF and the operating principle of the DS-FMPMMs is further explored.
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Due to inherent high torque density and low pulsating torque, the double-side flux-modulated permanent magnet machines (DS-FMPMMs), which are mounted with PMs on both the stator and rotor, have attracted extensive research attention. DS-FMPMMs have affluent air-gap magnetic field harmonics, which makes this type of machine difficult to analyze quantitatively. In this paper, a quantitative permeance-magnetomotive force (P-MMF) is adopted to obtain the electromagnetic performances of the proposed DS-FMPMMs. In addition, the modulation mechanisms are revealed insightfully in the double-side PMs MMF and the operating principle of the DS-FMPMMs is further explored.
Key concepts: Permeance, Magnetomotive force, Magnet, Flux (metallurgy), Magnetic flux, Mechanical engineering, Computer science, Materials science