Optimal design of a hybrid suspension magnet for middle-low-speed maglev trains
Song Xiao, Kunlun Zhang, Guoqing Liu, Yongzhi Jing, Jan K. Sykulski
Abstract
Open-access reader
Song Xiao, Kunlun Zhang, Guoqing Liu, Yongzhi Jing, Jan K. Sykulski
Abstract
Open-access reader
A middle-low-speed maglev train is supported by an electromagnetic force between the suspension electromagnet (EM) and the steel rail and is driven by a linear induction motor. The capability of the suspension system has a direct bearing on safety and the technical and economic performance of the train. This paper focuses on the dependence of the electromagnetic force on the variation of the structural configuration of the EM with the purpose of improving performance of a conventional EM. Finally, a novel configuration is proposed of a hybrid suspension magnet, which combines permanent magnets and coils, in order to increase the suspension force while reducing the suspension power loss.
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A middle-low-speed maglev train is supported by an electromagnetic force between the suspension electromagnet (EM) and the steel rail and is driven by a linear induction motor. The capability of the suspension system has a direct bearing on safety and the technical and economic performance of the train. This paper focuses on the dependence of the electromagnetic force on the variation of the structural configuration of the EM with the purpose of improving performance of a conventional EM. Finally, a novel configuration is proposed of a hybrid suspension magnet, which combines permanent magnets and coils, in order to increase the suspension force while reducing the suspension power loss.
Key concepts: Maglev, Magnet, Suspension (topology), Electromagnet, Electromagnetic suspension, Magnetic levitation, Train, Power (physics)