微流控
培养皿
拉普拉斯压力
材料科学
纳米技术
数字微流体
聚苯乙烯
光电子学
聚合物
复合材料
表面张力
物理
电润湿
电介质
生物
量子力学
遗传学
作者
Cyril Deroy,Federico Nebuloni,Peter R. Cook,Edmond J. Walsh
标识
DOI:10.1002/smtd.202100724
摘要
Few microfluidic devices are used in biomedical labs, despite the obvious potential; reasons given include the devices are rarely made with cell-friendly materials, and liquids are inaccessibly buried behind solid confining walls. An open microfluidic approach is reviewed in which aqueous circuits with almost any imaginable 2D shape are fabricated in minutes on standard polystyrene Petri dishes by reshaping two liquids (cell-culture media plus an immiscible and bioinert fluorocarbon, FC40). Then, the aqueous phase becomes confined by fluid FC40 walls firmly pinned to the dish by interfacial forces. Such walls can be pierced at any point with pipets and liquids added or removed through them, while flows can be driven actively using external pumps or passively by exploiting local differences in Laplace pressure. As walls are robust, permeable to O
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