封闭环境中的光热流体力学半分析模型

Tetsuro Tsuji, Shun Saito, Satoshi Taguchi
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引用次数: 0

摘要

温度升高是由流体的光热效应和/或垂直于流体膜的聚焦高斯光束的吸收所引起的边界效应触发的,然后温度变化通过浮力和/或热渗透滑移诱导流场。通过与数值模拟结果的比较,验证了该光热流体系统的数学分析解,并将其应用于典型的光热流体问题。特别是,根据半解析得到的热泳力和流动阻力,研究了我们之前的实验[T. Tsuji 等,Electrophoresis, 42, 2401 (2021)]中观察到的纳米粒子的光热阱。该半解析解可以通过开放源代码共享,供没有流体力学背景的研究人员使用。
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Semi-analytical model of optothermal fluidics in a confinement
In this paper, we provide the semi-analytical solution of the temperature and flow fields of a fluid confined in a narrow space between two parallel plates. The temperature increase is triggered by photothermal effects of fluids and/or boundaries due to the absorption of a focused Gaussian beam irradiated perpendicular to the fluid film, and then the temperature variation induces the flow fields through a buoyancy force and/or thermo-osmotic slip. The semi-analytical solution to this optothermal fluidic system is validated by comparing with the results of numerical simulation, and is applied to typical optothermal fluidic problems. In particular, the optothermal trap of nanoparticles observed in our previous experiment [T. Tsuji, et al., Electrophoresis, 42, 2401 (2021)] is investigated in terms of thermophoretic force and flow drag that are obtained semi-analytically. The semi-analytical solution can be shared through open-source codes that are available to researchers without the background of fluid mechanics.
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