A Microfluidic Mixer Fabricated From Compliant Thermoplastic Films

N. Paya, T. Dankovic, A. Feinerman
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引用次数: 3

Abstract

Mixing is often crucial to the operation of various microfluidic devices. And the most common objective is rapid mixing between two initially segregated fluid streams in a minimal amount of space. In microfluidic flows characterized by incompressibility and low Reynolds number, however, turbulence is almost entirely absent and mixing generally relies on diffusion. Therefore, based on the properties of the fluids involved, it can take impractically long to achieve high mixing efficiency in some cases. To resolve this problem, this paper demonstrates a novel compliant micromixer made of thermoplastic films for lab-on-a-chip applications. The microfluidic mixer utilizes self-rotation effects to achieve high mixing efficiency at Reynolds numbers below 100. In addition, a possible design is suggested for a thermoplastic voltage-actuated micromixer which can lead to even better mixing performance at Reynolds numbers below 1.
柔性热塑性薄膜制备的微流控混合器
混合通常是各种微流体装置运行的关键。最常见的目标是在最小的空间内快速混合两种最初分离的流体流。然而,在以不可压缩和低雷诺数为特征的微流体流动中,湍流几乎完全不存在,混合通常依赖于扩散。因此,根据所涉及流体的性质,在某些情况下,要达到高混合效率可能需要很长时间。为了解决这个问题,本文展示了一种新型的柔性微混合器,由热塑性薄膜制成,用于芯片实验室应用。微流控混合器利用自旋效应,在雷诺数低于100时实现了较高的混合效率。此外,还提出了一种热塑性电压驱动型微混合器的可能设计,该混合器在雷诺数低于1时具有更好的混合性能。
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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