Micro Valve and Chaotic Mixer Driven by Electrorheological Fluid

X. Niu, Yi-Kuen Lee, Liyu Liu, W. Wen
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引用次数: 2

Abstract

We present the successful design and fabrication of push-and-pull micro-valve and micro mixer chips that driven by a kind of nanoparticle based giant electrorheological fluid (GER fluid). Our multilayer chips are fabricated by polydimethylsiloxane (PDMS)-based soft lithography techniques. Fast response time of the GER fluid and the push-and-pull valve design adopted assure fast switching time of the valve less than 10 ms and sound reliability. The giant electrorheological effect of ER fluid used is able to provide high pressure changes in GER control channels, so as to supply perturbations with amplitude big enough to achieve fully chaotic mixing of micro flows in a short channel length
电流变流体驱动的微阀与混沌混频器
介绍了一种基于纳米颗粒的巨电流变流体驱动的推拉式微阀和微混合器芯片的成功设计和制造。我们的多层芯片是由聚二甲基硅氧烷(PDMS)为基础的软光刻技术。GER流体响应时间快,采用推挽式阀设计,保证了阀的快速开关时间小于10ms,可靠性高。所使用的电流变流体的巨大电流变效应能够在电流变控制通道中提供高压变化,从而提供振幅足够大的扰动,从而在短通道长度内实现微流的完全混沌混合
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