Fully Developed Hydrodynamic and Thermal Transport of Combined Pressure and Electrokinetically-driven Flow in a Microchannel With Three Immiscible Fluids

S. Pramanik, A. Mukhopadhyay, S. Sen
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Abstract

Thermally and hydrodynamically fully developed combined pressure-driven and electroosmotic flow through a channel with three immiscible fluids has been simulated for isoflux wall boundary conditions. Closed form expressions have been developed for velocity and temperature profiles and Nusselt number. The results indicate strong effects of fluid layer thickness, force fields and boundary conditions.
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具有三种不混相流体的微通道中压力和电驱动联合流体动力和热传递的充分开发
在等通量壁面边界条件下,模拟了三种不混相流体通道中完全发展的压力驱动和电渗透联合流动。对于速度和温度分布以及努塞尔数,已经发展出封闭形式的表达式。结果表明,流体层厚度、力场和边界条件对其影响较大。
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