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Research on a Novel Muti-gap HTS Linear Motor for the Using of Ultra High Speed Maglev

机译:超高速Maglev新型Muti-Gap HTS线性电动机的研究

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High-temperature superconducting (HTS) linear motors adopt HTS magnets with high current density and strong magnetic density to substitute copper winding coils or permanent magnets in traditional linear motors, which can effectively reduce the weight of linear motors and improve the efficiency of linear motors under the same output power level. In order to better meet the requirements of high thrust density and strong equilibrium stability of the future ultra-high speed magnetic levitation train driving device, a neo-structure of a new type of bilateral multi-air gap HTS linear motor is proposed in this paper, and its stator structure, rotor structure, air gap and other key parts are designed. The corresponding electromagnetic transient model is established by ansys finite element method, which verifies its better normal stability during operation. The influences of superconducting coil loop current and coil turns on the maximum thrust of the motor are studied, and the causes of the results are analyzed. In order to further improve the thrust density of the motor, the electromagnetic thrust output characteristics of the motor are compared between the structure without a core and the structure with a core, and it is concluded that the coreless structure of the superconducting linear synchronous motor is more suitable for the operation of high thrust and ultra-high speed.
机译:高温超导(HTS)线性电动机采用具有高电流密度和强磁密度的HTS磁体,以替代传统的线性电机中的铜绕组线圈或永磁体,可以有效降低线性电机的重量,提高线性电动机的效率同样的输出功率电平。为了更好地满足未来超高速磁悬浮列车驱动装置的高推力密度和强平衡稳定性的要求,本文提出了一种新型双侧多气隙HTS线性电机的新结构其定子结构,转子结构,气隙和其他关键部件设计。相应的电磁瞬态模型由ANSYS有限元方法建立,其在操作期间验证其更好的正常稳定性。研究了超导线圈回路电流和线圈对电动机的最大推力的影响,分析了结果的原因。为了进一步提高电动机的推力密度,在没有芯的结构与具有芯的结构之间比较电动机的电磁推力输出特性,并且得出结论,超导线性同步电动机的无芯结构是更适合高推力和超高速度的操作。

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