锤击振荡机构和微滑动机构电触点退化现象——触点电阻及其模型

S. Wada, K. Sawa
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引用次数: 1

摘要

作者提出了一种通过反向锤击振荡使电触点产生阻尼的机构,以及另一种由磁致伸缩作动器或压电作动器直接驱动的电触点产生周期性微滑动的新机构。结果表明,在微振荡的影响下,每一种机构都能使试验模拟出电触点的实际退化现象。利用上述机理及其模型,研究了微振荡对接触电阻的影响。本文首先利用微滑动机构(MSM)的实验结果证明了电触点存在退化现象。该现象与连接器公销与母销之间的接触摩擦力和滑动行程有关。其次,利用锤击振荡机构(HOM)的实验结果明确了电触点存在平行退化现象。该现象与上述接触摩擦力和锤击球产生的脉冲加速度有关。最后,通过对上述实验结果的比较,得出两类现象的相似性来源于表征电触点上时序相对位移的振幅、固有频率和阻尼比等力学参数的相似性,尽管前者是滑动机制,后者是锤击机制,两者的机理有很大的不同。他们认识到,在实际的静态接触中,在一些振荡或振动的影响下,这种现象发生得更频繁。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Degradation Phenomena of Electrical Contacts Using Hammering Oscillating Mechanism and Micro-Sliding Mechanism- Contact Resistance and Its Model
Authors have developed the mechanism which gives damping vibration to electrical contacts by reciprocal hammering-oscillation and the other new mechanism which gives periodical micro-sliding to electrical contacts directly driven by a magmetostrictive actuator or a piezo-electrical one. It was shown that each mechanism was able to make a test simulate an actual degradation phenomenon on electrical contacts by the influence of micro-oscillation. Using the above mechanisms and their models they have studied the influences of a micro-oscillation on contact resistance. In this paper, first, it was shown that there was a degradation phenomenon of electrical contacts by experimental results using micro-sliding mechanism (MSM). And it was also shown that the phenomenon was depended on contact frictional force between a male-pin and a female-pin of a connector and sliding stroke. Second, it was made clear that there was the parallel degradation phenomenon of electrical contacts by experimental results using hammering oscillating mechanism (HOM). And the phenomenon was depended on the above contact frictional force and impulsive acceleration generated by a hammering ball. Finally, by comparing the above experimental results, the authors obtained that the similarity between two types of phenomena came from similar mechanical parameters like amplitude, natural frequency and damping ratio which characterized time-sequential relative displacement on an electrical contact, though the mechanism was quite different from each other, as the former by sliding and the latter by hammering. And they recognized that phenomena occurred more frequently in actual static contacts under the influence of some oscillation or vibration.
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