通过复杂曲线通道进行电渗透生物流体研究

S. Ijaz, Sobia Bibi, Iqra Shahzadi
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引用次数: 0

摘要

本研究通过结合电渗效应和沿波浪壁采用滑移边界条件,研究了二维杰弗里流体的物理特性。通过假设高波长和低雷诺数近似值,将驱动流动分析的方程转换为非维度形式并求解。精确获得了流动的血液动力学速度、壁上应力和温度输出。详细讨论了相关物理参数对计算结果的影响。此外,还发现粘性耗散效应是产生热量的主要原因,而不是分子传导。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Electro‐osmotically engendered biofluid investigation through complex curvy passage
This study investigates the physical characteristics of a two‐dimensional Jeffery fluid by incorporating the electroosmosis effect and employing slip boundary conditions along wavy walls. The equations that drive the flow analysis have been converted into nondimensional form and solved by assuming a high wavelength and a low Reynolds number approximation. The outputs for hemodynamic velocity, stress on the walls, and temperature for the flow are obtained exactly. Graphic representations of the effects of relevant physical parameters on the computational results are discussed in detail. Additionally, it is found that the viscous dissipation effects are the primary cause of heat production, rather than molecular conduction.
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