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2024-01-02
Flux Weakening Control and Experimental Verification of Hybrid Excitation Field Modulation Synchronous Machine for Direct Drive Propulsion
By
Progress In Electromagnetics Research C, Vol. 140, 1-9, 2024
Abstract
With combining the advantages of the hybrid excited machine and field modulation machine, hybrid excitation field modulation machine (HEFMM) exhibits obvious merits of controllable flux operation and independent flux distributon paths. A total copper loss minimization model is established to determine the optimal ratios of field current, d-axis and q-axis currents in low speed region. In high speed operating region, one flux weakening fuzzy control strategy combining with particle swarm optimization (PSO) algorithm for HEFMM was proposed, which improves the dynamic characteristic and decrease the harmful influence of parameters variation during the operation region of HEFMM. The correctness and effectiveness of the proposed flux weakening fuzzy control strategy were verified by the simulation data and experimental results, which demonstrated that the this current optimization method based on PSO algorithm can effectively reduce the total copper loss of the machine by 22%, the range of speed regulation with higher efficiency are ontained.
Citation
Jiming Luo, Yang Zhang, Enzhao Lu, Quanzhen Huang, Mingming Huang, and Duane Decker, "Flux Weakening Control and Experimental Verification of Hybrid Excitation Field Modulation Synchronous Machine for Direct Drive Propulsion," Progress In Electromagnetics Research C, Vol. 140, 1-9, 2024.
doi:10.2528/PIERC23103105
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