利用磁通势垒位移减小同步磁阻电机转矩脉动

S. Ferrari, G. Pellegrino, M. Davoli, C. Bianchini
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引用次数: 8

摘要

同步磁阻(SyR)电机在许多领域是其他类型电机的可行替代方案。简单的转子结构可以在高速运行中以低制造成本和更高的安全性实现高效率。然而,SyR电机的主要问题之一是定子和转子磁动势谐波相互作用产生的转矩脉动。迄今为止,已经提出了许多设计方案,但只有通过长时间的优化运行或复杂的机器结构才能实现大幅度的转矩脉动减少。本文提出了一种简单有效的利用磁通势垒位移减小转矩脉动的方法。设计了两台机器,以便将提议的设计与最先进的程序进行比较。采用磁通势垒移位设计的电机与优化后的电机性能相近,设计时间更短,设计方法更通用。
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Reduction of Torque Ripple in Synchronous Reluctance Machines through Flux Barrier Shift
Synchronous Reluctance (SyR) machines are a viable alternative to other kinds of electrical machines in many fields. The simple rotor structure allows a high efficiency level with low manufacturing costs and higher safety in high-speed operations. However, one of the main problems of the SyR machines is the torque ripple generated by the interaction of the stator and rotor Magneto-Motive Force harmonics. Many design solutions have been proposed to date, but heavy torque ripple reduction has only been achieved with long optimizations runs or with complex machine structures. This paper presents an easy and effective method to reduce torque ripple through flux barrier shift. Two machines were designed in order to compare the proposed design with a state-of-the-art procedure. The machines designed with flux barrier shift presents similar performances to the optimized machine, with a lower design time and a more general design method.
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