基于磁力减速齿轮的空气涡轮起动器转子系统瞬态动力学研究

Yu Zhou, Lifeng Hong, Xueyu Li, S. Ding, Farong Du, Xintao Zheng
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引用次数: 9

摘要

空气涡轮起动器(ATS)是一种辅助机械装置,它利用压缩空气作为动力源来启动和驱动发动机。可承受高压气流在运行过程中的冲击,高压气流可能造成关键部件之间的碰撞。因此,有必要对ATS转子系统的暂态动力学进行研究。然而,与传统的双转子结构不同,ATS采用磁减速器(MRG)作为减速器单元,涉及磁场、应力场等多个物理场,给瞬态动力学分析带来了挑战。本文创新性地将各转子间的磁相互作用力简化为弹簧形式,并加入到求解模型中,实现了多个物理场的解耦。在此基础上,利用瞬态动力学理论分析了核磁共振磁导仪的瞬态位移响应。结果表明,转子系统的瞬态位移具有明显的振荡衰减特性。该研究揭示了核磁共振成像技术在瞬态冲击下应用的可行性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Investigation on transient dynamics of rotor system in air turbine starter based on magnetic reduction gear
As an auxiliary mechanical device, Air Turbine Starter (ATS) uses compressed air as power source to start and drive the engine. It withstands the impact of high-pressure airflow during operation, which may cause collision between key components. For this reason, it is necessary to investigate the transient dynamics of ATS rotor system. However, different from the traditional dual rotor structure, ATS uses magnetic reduction gear (MRG) as a reduction unit, which involves multiple physical fields such as magnetic field and stress field, bringing challenges to transient dynamics analysis. In this paper, the magnetic interaction forces between various rotors are innovatively simplified into the form of springs, and added to the solution model to achieve the decoupling of multiple physical fields. On this basis, the transient displacement response of MRG-ATS has been analyzed using transient dynamics theory. The results indicate that the transient displacement of the rotor system has obvious characteristics of oscillation attenuation. The study reveals the feasibility of MRG-ATS application under transient shock.
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