研究神经系统的微流体技术。

Pamela G Gross, Leslie P Weiner, Emil P Kartalov, Axel Scherer
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引用次数: 2

摘要

微纳米制造技术的最新进展导致了用于体外生物学研究的微流控平台的发展。基于其精确控制单个细胞周围环境的能力,这些微流控平台已越来越多地用于研究单细胞水平的生理反应。很可能这些设备将继续获得普及,作为研究单个细胞暴露于外部介质和其他细胞时的行为的工具。本文回顾了微流体技术及其在单细胞研究中的应用,重点介绍了在神经元研究中特别有用的进展,如具有模式物理和化学线索的平台,集成电生理学和其他传感器,轴突分离的架构,以及精确控制的化学因子的传递。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Microfluidic techniques for studying the nervous system.

Recent advances in micro- and nano-fabrication techniques have led to the development of microfluidic platforms designed for in vitro biological studies. Based on their capability of precise control of the environment surrounding individual cells, these microfluidic platforms have been increasingly utilized to investigate physiologic responses at the single-cell level. It is likely that these devices will continue to gain popularity as a tool to study the behavior of individual cells as they are exposed to extrinsic agents and other cells. This article reviews microfluidic technology and its application to single-cell research, with emphasis on advances that are particularly useful for neuronal studies, such as platforms with patterned physical and chemical cues, integrated electrophysiology and other sensors, architecture for isolation of axons, and delivery of precisely controlled chemical factors.

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