旋转型超声电机在冲击环境下的失效模式研究

孙栋1,王新杰1,王炅1,陈超2,唐玉娟3

振动与冲击 ›› 2018, Vol. 37 ›› Issue (9) : 32-36.

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振动与冲击 ›› 2018, Vol. 37 ›› Issue (9) : 32-36.
论文

旋转型超声电机在冲击环境下的失效模式研究

  • 孙栋1,王新杰1,王炅1,陈超2,唐玉娟3
作者信息 +

Failure modes for rotary ultrasonic motors under shock environment

  • SUN Dong1, WANG Xin-jie1,WANG Jiong1,CHEN Chao2,TANG Yu-juan3
Author information +
文章历史 +

摘要

随着超声电机在武器系统中的应用,研究分析冲击环境下电机的失效模型,为超声电机应用在武器系统等高过载环境中提供意见与建议变得十分具有意义。本文分析了电机中关键部件在冲击载荷下可能存在的失效模式:压电陶瓷的断裂与脱胶;定子的塑性变形引起工作频率的漂移;定转子的塑性变形和预紧力机构中紧固螺栓的松动引起预压力的减少甚至消失。通过动力学仿真对超声电机各个部件的受力情况与应力波传递过程进行分析,分析结果显示预紧力机构是整个结构中最容易被损坏的部分。通过空气炮对超声电机进行冲击过载实验,当冲击过载达到26546g时,超声电机中用于施加预紧力的螺栓松动,预紧力结构失效,其它结构部件没有发生明显损坏或变形。研究结果为超声电机应用于武器系统等高过载环境中提供理论依据与改进意见。

Abstract

It is significant to study failure modes of ultrasonic motors applied in weapon systems under shock environment. The possible failure modes of key components in ultrasonic motors include fracture and delamination of piezoelectric ceramics, drift of working frequency due to plastic deformation of the stator, and reduction or disappearance of pre-pressure due to stator and rotor’ plastic deformation and bolt-loosening in pre-tightening force mechanisms. The stress states and stress wave transmission process of each component of the motors were analyzed with dynamic simulation. It was shown that the pre-tightening force mechanism is the part to be damaged most easily in the whole structure of a motor. An air gun was used to conduct the impact-overload tests for an ultrasonic motor. When the impact load reached 26546g, bolts loosened, the pre-tightening force mechanism became invalid, but other parts had no obvious damages or deformations. The results provided a theoretical basis and improvement measures for the application of ultrasonic motors in weapon systems under shock environment.



关键词

高冲击 / 超声电机 / 失效模型

Key words

shock environment / ultrasonic motor / failure model

引用本文

导出引用
孙栋1,王新杰1,王炅1,陈超2,唐玉娟3. 旋转型超声电机在冲击环境下的失效模式研究[J]. 振动与冲击, 2018, 37(9): 32-36
SUN Dong1, WANG Xin-jie1,WANG Jiong1,CHEN Chao2,TANG Yu-juan3. Failure modes for rotary ultrasonic motors under shock environment[J]. Journal of Vibration and Shock, 2018, 37(9): 32-36

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