Department of Bio and Brain Engineering, Korea Advanced Institute of Science and Technology, 335 Gwahangno, Yuseong-gu, Daejeon 305-701, Republic of Korea.
Lab Chip. 2011 Jan 7;11(1):33-47. doi: 10.1039/c0lc00117a. Epub 2010 Oct 14.
Extraordinary advances in lab on a chip systems have been made on the basis of the development of micro/nanofluidics and its fusion with other technologies based on electrokinetics and optics. Optoelectrofluidic technology, which has been recently introduced as a new manipulation scheme, allows programmable manipulation of particles or fluids in microenvironments based on optically induced electrokinetics. Herein, the behaviour of particles or fluids can be controlled by inducing or perturbing electric fields on demand in an optical manner, which includes photochemical, photoconductive, and photothermal effects. This elegant scheme of the optoelectrofluidic platform has attracted attention in various fields of science and engineering. A lot of research on optoelectrofluidic manipulation technologies has been reported and the field has advanced rapidly, although some technical hurdles still remain. This review describes recent developments and future perspectives of optoelectrofluidic platforms for chemical and biological applications.
基于微纳流控技术的发展及其与基于电动和光学的其他技术的融合,在芯片实验室系统方面取得了非凡的进展。光电流体技术最近被引入作为一种新的操作方案,允许根据光致动电动学在微环境中对颗粒或流体进行可编程操作。在此,可以通过以光学方式按需感应或干扰电场来控制颗粒或流体的行为,这包括光化学、光电导和光热效应。这种光电流体平台的优雅方案引起了科学界和工程界的关注。已经有大量关于光电流体操纵技术的研究报告,并且该领域发展迅速,尽管仍然存在一些技术障碍。本综述描述了光电流体平台在化学和生物应用方面的最新进展和未来展望。