流体滑移对微通道薄膜区传热影响的研究

R. Gorla, D.G.R. Sharma
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引用次数: 0

摘要

对微流控通道中界面滑移对液体薄膜蒸发的影响进行了理论研究。采用分离压力和毛细管力驱动薄膜区液气界面处的液体流动。蒸发薄膜区域是在液/固界面的视接触线以外的一个延长的半月板。薄膜蒸发在高效热管中起着关键作用。发现滑移长度通过改变薄膜的几何形状来影响微通道内的传热。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Investigation of the effect of fluid slip on heat transfer in the thin-film region in a micro-channel
A theoretical study was undertaken to check the influence of interfacial slip on evaporation of a thin liquid film in a microfluidic channel. The disjoining pressure and the capillary force which drive the liquid flow at the liquid-vapor interface in thin film region are adopted. The evaporating thin film region is an extended meniscus beyond the apparent contact line at a liquid/solid interface. Thin film evaporation plays a key role in a highly efficient heat pipe. Slip length was found to affect the heat transfer in the microchannel by altering the thin film geometry.
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