用于自动生成环形球体的微流控装置

H. Takai, M. Kojima, K. Ohara, M. Horade, T. Tanikawa, Y. Mae, M. Yamato, T. Arai
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引用次数: 4

摘要

在组织工程领域,需要自动生成各种形状的球体。我们提出了一种产生旋转流的微流体装置,用于制造类环形球体。本文报道了类环面球体的构造概念、微通道的设计,以及利用所创建的微通道进行仿真和实验,对装置中旋转流的产生进行了基本验证。施工概念是利用旋转流的离心力在连续流刺激下进行非接触操作。优化了微流控装置的设计,以产生微旋转流,流动仿真模型结果表明,在大于固定流速时产生旋转流。我们做了这些设计。大尺寸通道采用3D打印机制造,小尺寸通道采用聚二甲基硅氧烷(PDMS)成型,并通过颗粒实验观察了旋转流动的产生。在这两种类型的通道中,粒子的旋转与模拟相似。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Microfluidic device for automated generation of toroidal-like spheroids
In the field of tissue engineering, it is called for to automate generation of various-shaped spheroids. We propose a micro fluidic device that generates rotational flow for producing toroidal-like spheroid. This paper reports the concept of construction of toroidal-like spheroid, designs of microchannels, and fundamental verification about generation of rotational flow in the device using simulation and experiment using created microchannels. Concept of construction is non-contact operation in a continuous flow stimulus by using centrifugal force of rotational flow. Designs of the micro fluidic device was optimized to generate micro-rotational flow, and the results of flow simulation models show that rotational flow is generated at the flow velocity more than fixed. We made these designs. The large size channel was made with 3D printer and the small channel was made by poly-dimethysiloxane (PDMS) molding, and generation of rotational flow was observed in an experiment using particles. In both types of channels, particles were rotated similar to the simulations.
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