一种快速测定微粒微流的方法

Dong Liu, M. Maxey, G. E. Kamiadakis
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引用次数: 40

摘要

微颗粒主动控制的建模在许多不同的微流体应用中是重要的,包括生物流和自组装结构。本文提出了一种快速模拟复杂微观几何中许多粒子动力学的方法。该方法基于有限力多极的空间分布,比完全直接数值模拟所需的分辨率要低得多。总结了数值计算公式,并给出了光滑微通道和粗糙微通道中斯托克斯流和低雷诺数流的算例。通过与全直接数值模拟和实验的比较,验证了该方法的准确性和有效性。
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A fast method for particulate microflows
Modeling of active control of microparticles is important in a number of different microfluidic applications, including bioflows and self-assembled structures. We present here a fast method for simulating the dynamics of many particles in complex microgeometries. The method is based on a spatial distribution of finite force multipoles and requires much less resolution than full direct numerical simulations. The numerical formulation is summarized, and examples are given for Stokes flow and low Reynolds number flow in smooth and rough microchannels. Comparisons made with full direct numerical simulations and experiments validate the accuracy and efficiency of the proposed approach.
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