流动诱导的微粒迁移微流体学——实验者的综合综述。

IF 5 Q1 ENGINEERING, BIOMEDICAL
David Poustka, Jaromir Havlica, David Kramoliš, Anna Parikova, Francisco J Galindo-Rosales, Marcel Štofik, Jan Maly
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引用次数: 0

摘要

在惯性、粘弹性和弹性惯性微流体(统称为流动诱导颗粒迁移微流体(FIPMM))方面的广泛工作基础上,本综述对该领域的理论基础和实践进展进行了详尽的综合。重点是利用微流控平台有效分离和操纵纳米级颗粒,如外泌体。本文强调了这些方法的独特优势和实际挑战,弥合了理论与应用之间的差距。通过探索惯性和弹性力的相互作用,这项工作证明了在不需要化学标记的情况下提高颗粒分离的分辨率、吞吐量和可扩展性的潜力。此外,它还解决了器件制造限制、材料特性和操作可重复性等关键限制,为研究人员和工程师提供了战略信息。通过解决这些挑战,本综述旨在指导该领域的新进入者,并为该研究领域的总体进步做出贡献。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Flow-induced particle migration microfluidics-The experimenter's comprehensive review.

Building upon the extensive body of work in inertial, viscoelastic, and elasto-inertial microfluidics-collectively classified as flow-induced particle migration microfluidics (FIPMM)-this review delivers an exhaustive synthesis of theoretical foundations and practical advancements in the field. The focus is centered on leveraging microfluidic platforms for the effective separation and manipulation of nanoscale particles such as exosomes. Highlighting the unique advantages and practical challenges of these methods, the review bridges the gap between theory and application. By exploring the interplay of inertial and elastic forces, this work demonstrates the potential for enhanced resolution, throughput, and scalability in particle separation without the need for chemical labeling. In addition, it addresses key limitations such as device fabrication constraints, material properties, and operational reproducibility, providing strategic information to researchers and engineers. By addressing these challenges, this review intends to guide new entrants in the field and contribute to the general advancement of this area of research.

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CiteScore
9.40
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