Novel rotor design for high-speed solid rotor induction machines

D. Mcguiness, M. O. Gulbahce, D. Kocabas
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引用次数: 4

Abstract

Solid rotor induction motors (SRIM) became increasingly prominent in high-speed drive applications with the development of efficient power electronics systems. These types of motors are easier to manufacture compared to conventional caged rotor induction machines (CRIM). In addition to that their high material integrity and high thermal properties makes them suitable to be used for high-pressure and high-speed drive applications. This paper proposes a new innovative rotor type for SRIM using in high-speed drive applications. This rotor type consists of hybrid construction of axially slitted and coated solid rotor structures and it is named as Shielded Axially Slitted Solid Rotor Induction Machine (SASSRIM) by the authors. In order to obtain performance characteristics of the novel designed rotor type, transient magnetic model is analyzed by finite element method (FEM). Finite Element Analysis (FEA) results show that rated output torque of SASSRIM is higher and more stable than other solid rotor structures. The brand new design also decreases the total losses, thereby making it more efficient than other conventional solid rotor designs.
高速固体转子感应电机的新型转子设计
随着高效电力电子系统的发展,固体转子感应电动机(SRIM)在高速驱动中的应用日益突出。与传统的笼状转子感应电机(CRIM)相比,这些类型的电机更容易制造。此外,它们的高材料完整性和高热性能使它们适合用于高压和高速驱动应用。本文提出了一种用于高速驱动应用的新型SRIM转子。这种转子类型由轴向分切和涂层固体转子结构混合构成,作者将其命名为屏蔽轴向分切固体转子感应电机(SASSRIM)。为了获得新型转子的性能特征,采用有限元法对转子的暂态磁模型进行了分析。有限元分析结果表明,与其他固体转子结构相比,SASSRIM的额定输出转矩更高且更稳定。全新的设计也降低了总损失,从而使其比其他传统的固体转子设计更有效。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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