Non-contact 3D rotation and capture method for bio-object based on microfluidic stream

Yaxiaer Yalikun, T. Asano, Y. Kanda, K. Morishima
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引用次数: 1

Abstract

This paper reports a simple method to capture and rotate a bio-object at a controllable speed in direction of vertical plane. This method intends to implement its function without contact in an open space for biological application such as dynamically monitoring, orientation setting, and mechanical stimulation induced by fluidic shear force. To verify this principle, calculation process of necessary flow rate for generating enough operating force on the cell is conducted with CFD. An open-space microchip with several orifices (diameter is 100 μm) is designed and fabricated. Then the manipulating demonstrations are conducted. On the calculated conditions, the rotation of target cell is successfully obtained. The relation between the object's velocity, flow rate, and operating force is clarified.
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基于微流控的生物物体非接触式三维旋转与捕获方法
本文报道了一种捕获生物物体并使其沿垂直方向以可控速度旋转的简单方法。该方法旨在实现其在开放空间中的无接触功能,如动态监测、定向设置和流体剪切力诱导的机械刺激。为了验证这一原理,利用CFD进行了对电池产生足够操作力所需流量的计算过程。设计并制作了一种具有多个孔径(直径为100 μm)的开放式微芯片。然后进行了操纵演示。在计算条件下,成功地获得了目标单元的旋转。阐明了物体的速度、流量和作用力之间的关系。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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