Dielectric fluid flow generation in meso-tubes with micro-scale electrohydrodynamic conduction pumping

V. Patel, J. Seyed-Yagoobi
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引用次数: 8

Abstract

Fluid flow generation in micro-scale is becoming increasingly important as two-phase flow thermal management devices at the micro-scale are being widely developed. These devices are currently being used to cool high heat flux sources with small surface areas, found in various electronic, computer and aerospace applications. Limitations in space and power call for a simple yet effective flow generation method that is reliable. In this respect, electrohydrodynamic (EHD) conduction pumping shows great potential as a flow generation technique at the micro-scale. This paper presents the results of an experimental study of EHD conduction pumping of a dielectric liquid in a tube of 1 mm inner diameter, resulting in a maximum mass flux level of 100 kg/m2 s. The pump electrode spacing is on the order of 120 µm. Pressure generation in single phase flow resulting in the above mass flux indicates the effectiveness of the technique. Moreover, this paper demonstrates the practicality of using EHD pumping due to an exceedingly low power requirement and relative ease of implementation.
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微尺度电流体动力传导泵送介管中介电流体流动的产生
随着微尺度两相流热管理装置的广泛发展,微尺度流体流动的产生变得越来越重要。这些设备目前被用于冷却具有小表面积的高热流源,用于各种电子,计算机和航空航天应用。由于空间和功率的限制,需要一种简单而有效且可靠的流生成方法。在这方面,电流体动力(EHD)传导泵作为一种微尺度的流生成技术显示出巨大的潜力。本文介绍了电介质液体在内径1mm的管中EHD导泵的实验研究结果,最大质量通量水平为100kg /m2 s。泵电极间距约为120µm。在单相流中产生压力导致上述质量通量表明了该技术的有效性。此外,由于极低的功率要求和相对容易实现,本文论证了使用EHD泵送的实用性。
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