Modeling Hydrogel-Controlled Micro-Reactors for Enzyme Assays With Finite Elements for Improved Flow and Filling Distribution

Philipp J. Mehner, Franziska Obst, David Simon, Jing Tang, Anthony Beck, Denise Gruner, M. Busek, D. Appelhans, U. Marschner, B. Voit, A. Richter
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引用次数: 1

Abstract

We propose an improved micro reactor design for a scalable microfluidic device, in which enzymes are immobilized in a hydrogel matrix. Furthermore, fluid flow is controlled by means of hydrogel-based micro-valves. In this work, computational flow simulations will be compared to experimental results to highlight new design ideas and to improve wetting and concentration distribution through the entire chamber volume, even for high aspect ratios. Additionally, modelling concepts will be introduced to efficiently describe multi-domain problems like enzyme reactions. With the help of a computer-aided design process which is capable to simulate hydrogel-based microfluidic systems it is possible to better understand, predict and visualize the behavior of micro-reactors and support the development of highly integrated hydrogel-based microfluidic circuits.
用有限元模拟酶分析用水凝胶控制的微反应器以改善流动和填充分布
我们提出了一种改进的微反应器设计,用于可扩展的微流体装置,其中酶被固定在水凝胶基质中。此外,流体流动的控制是通过基于水凝胶的微阀。在这项工作中,计算流模拟将与实验结果进行比较,以突出新的设计思想,并改善整个腔室体积的润湿和浓度分布,即使在高宽高比下也是如此。此外,建模概念将被引入,以有效地描述多领域的问题,如酶反应。借助能够模拟基于水凝胶的微流体系统的计算机辅助设计过程,可以更好地理解、预测和可视化微反应器的行为,并支持高度集成的基于水凝胶的微流体电路的开发。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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