4 W Dual-Contact Material MEMS Relay with a Contact Force Maximizing Structure

Su-Bon Kim, Yong-Hoon Yoon, Yong-Bok Lee, Kwang-Wook Choi, Min-Seung Jo, Hyun-Woo Min, Jun‐Bo Yoon
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引用次数: 1

Abstract

This paper reports an unprecedented 4 W MEMS relay that utilizes a dual contact-material system and a contact force maximizing structure. The contact force-maximizing structure is designed to achieve extremely low contact resistance. So far, commercialized MEMS relays have achieved a power level of 0.03 W in hot-switching conditions. In this work, we achieved a MEMS relay with operation reliability up to $5.7\times 10^{4}$ cycles and $1.3\times 10^{3}$ cycles at 10 V/300 mA (3 W) and 10 V/400 mA (4 W) signals, respectively, in hot-switching conditions. This achievement was due to an extremely-low contact resistance of $1.65\ \mathrm{m}\Omega$ achieved by utilizing the proposed contact force maximizing structure coupled with dual contact materials.
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具有接触力最大化结构的4w双触点材料MEMS继电器
本文报道了一种前所未有的4w MEMS继电器,该继电器采用双触点材料系统和触点力最大化结构。接触力最大化结构的设计,以实现极低的接触阻力。到目前为止,商业化的MEMS继电器在热开关条件下已达到0.03 W的功率水平。在这项工作中,我们实现了一个MEMS继电器,在热开关条件下,在10 V/300 mA (3 W)和10 V/400 mA (4 W)信号下,其运行可靠性分别高达$5.7\乘以10^{4}$周期和$1.3\乘以10^{3}$周期。这一成就是由于利用所提出的接触力最大化结构与双接触材料相结合,实现了极低的接触电阻1.65。
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