微流控通道中生物流体的生物力学研究

Richard Kyung, A. Zhao
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引用次数: 0

摘要

本文提出了一种细胞培养芯片力学系统——器官芯片(OOC)系统的多通道网络优化微流控技术。采用数值计算和计算机编程相结合的方法,综合考虑流型、最优流量和流动均匀性等因素,对片上器官微流控系统中的微流体流动进行了研究。本文选择圆形截面的微流控通道,因为其制作复杂度较低。通过连续方程和修正伯努利方程的迭代分析,以及交替迭代法Hardy-cross法,开发MATLAB计算机代码,研究流量Q随多种因素的变化规律。最终,我们发现在两种迭代方法中,流速Q与通道长度/直径呈二次关系。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Biomechanics of Bio-Fluid in the Microfluidic Channels Using Computer Simulations
In this paper, optimizing microfluidic technologies through a multiple channel network in a organ-on-a-chip (OOC) system which is a type of cell culture chip mechanics system were suggested. Using numerical and computer programming, this paper studied the micro-fluid flow in organ-on-a-chip microfluidic systems considering factors such as flow pattern, optimal flow rate and flow uniformity. For the purposes of this paper, micro-fluidic channels with a circular cross section were chosen due to its low fabrication complexity. MATLAB computer code was developed to investigate how the flow rate Q would change based on a variety of factors through both an iteration analysis using continuity equation and modified Bernoulli equation, and the Hardy-cross method which is an alternate iterative method. Ultimately, we found that flow rate Q had a quadratic relationship to length/diameter of the channel in both iterative methods.
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