Microchannel-based capillary microfluidics: From simple networks to capillaric circuits

Oriol Ymbern, P. Lenzen, A. Olanrewaju, Arya Tavakoli, M. Yafia, D. Juncker
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引用次数: 2

Abstract

Microfluidics and lab-on-a-chip devices demonstrated the potential advantages for the automation of laboratory workflows and the reduction of sample consumption, reaction time, and assay costs. Capillary microfluidics overcome the limitations of ‘lab-around-a-chip’ by permitting a pre-programmed liquid delivery and flow control to be embedded in the chip without the need for complex peripheral equipment. In this presentation, we chart the progress of microchannel-based capillary microfluidics, from the early stages of the cleanroom environment to the state-of-the-art in rapid prototyping. Following recent progress, we have introduced a new terminology – capillaric circuit (CC) – that both reflects the advances and provides a clear and distinct vocabulary that overcomes the ambiguity due to the multiple usage of the word “capillary”. We briefly describe the governing parameters of self-filling microchannel-based microfluidics CC, and, by analogy with electronic circuits, the deconstruction of CCs into basic fluidic elements and components. The library of basic capillaric elements is expanding. 3D printing enables rapid production of fully functional CCs, establishing CCs as a powerful increasingly complex microfluidic technology that can serve diverse applications.
基于微通道的毛细管微流体:从简单的网络到毛细管电路
微流体和芯片实验室设备展示了实验室工作流程自动化和减少样品消耗、反应时间和分析成本的潜在优势。毛细管微流体克服了“实验室围绕芯片”的限制,允许预先编程的液体输送和流动控制嵌入芯片,而无需复杂的外围设备。在这篇演讲中,我们描绘了基于微通道的毛细管微流体的进展,从洁净室环境的早期阶段到最先进的快速原型设计。根据最近的进展,我们引入了一个新的术语-毛细血管回路(CC) -既反映了进展,又提供了一个清晰而独特的词汇,克服了由于“毛细血管”一词的多次使用而产生的歧义。本文简要介绍了基于自填充微通道的微流体CC的控制参数,并类比电子电路,将CC分解为基本的流体元件和元件。基本毛细血管元素库正在扩大。3D打印可以快速生产功能齐全的cc,使cc成为一种功能强大且日益复杂的微流体技术,可以服务于各种应用。
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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