有锡,也有锡——电镀锡表面摩擦学和电学性能的表征

F. Ostendorf, T. Wielsch, M. Reiniger
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引用次数: 1

摘要

电镀锡表面是电气连接和应用领域中使用最广泛的连接器接触面之一。目前的研究重点是详细表征不同电镀亚光锡和光亮锡表面的摩擦学和电学性能,以更深入地了解磨损失效机制与电接触电阻特性的关系。实验采用自主研发的可变滑动路径、动态变化法向载荷和滑动速度的专用摩擦计,模拟连接器触点在插拔过程中的滑动运动。该装置不仅可以记录发生的摩擦力,还可以测量每个滑动循环中的接触阻力。首先,我们通过统计DoE分析确定了法向载荷、滑动距离和速度对接触阻力和摩擦力的影响。因此,我们发现,从电学的角度来看,亚光锡表面比光亮锡表面具有更稳定的接触电阻特性,但在纯摩擦学方面,光亮锡表面最初的摩擦力值更低。第二步,通过SEM、EDX和光学3d显微镜对磨损轨迹进行了研究,以阐明导致所观察到的不同电学和摩擦学性能的主要磨损失效机制。在这些研究中,我们能够确定锡表面特定的磨损失效机制,这可以与DoE分析的结果相关联,并且可以解释观察到的接触电阻特性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
There is Tin and there is Tin - Characterisation of Tribological and Electrical Properties of Electroplated Tin Surfaces
Electroplated tin surfaces are one of the most used and wide spread contact surfaces for connectors in fields of electrical connectivity and applications. The current study focused on a detailed characterisation of tribological and electrical properties of different electroplated matt and bright tin surfaces to get a deeper insight to the relation of wear failure mechanisms and electrical contact resistance characteristics. The experiments were carried out with a special in-house developed tribometer with variable sliding path, dynamically changeable normal loads and sliding velocities to simulate the sliding motion of connector contacts during insertion and withdrawal. This setup can not only record the occurring friction forces, but has also the capability to measure the contact resistance during every sliding cycle. In a first step we have determined the influence of normal load, sliding distance and velocity on the contact resistance and the friction force by means of a statistical DoE analysis. Hereby we found, that from an electrical point of view matt tin surfaces have a more stable contact resistance characteristic than bright tin surfaces, but under pure tribological aspects bright tin surfaces excel by initially lower friction force values. In the second step the wear tracks were investigated by means of SEM, EDX and optical 3D-microscopy to clarify which major wear failure mechanisms cause the observed different electrical and tribological properties. Within these investigations we were able to identify tin surface specific wear failure mechanisms which can be brought into correlation to the findings of the DoE analysis and can explain the observed contact resistance characteristics.
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