Rowland Institute at Harvard University, MA, USA.
Biofabrication. 2013 Jun;5(2):022001. doi: 10.1088/1758-5082/5/2/022001. Epub 2013 Feb 13.
Recent advances in the lab-on-a-chip field in association with nano/microfluidics have been made for new applications and functionalities to the fields of molecular biology, genetic analysis and proteomics, enabling the expansion of the cell biology field. Specifically, microfluidics has provided promising tools for enhancing cell biological research, since it has the ability to precisely control the cellular environment, to easily mimic heterogeneous cellular environment by multiplexing, and to analyze sub-cellular information by high-contents screening assays at the single-cell level. Various cell manipulation techniques in microfluidics have been developed in accordance with specific objectives and applications. In this review, we examine the latest achievements of cell manipulation techniques in microfluidics by categorizing externally applied forces for manipulation: (i) optical, (ii) magnetic, (iii) electrical, (iv) mechanical and (v) other manipulations. We furthermore focus on history where the manipulation techniques originate and also discuss future perspectives with key examples where available.
近年来,微流控芯片领域的进展与纳/微流控技术相结合,为分子生物学、基因分析和蛋白质组学等领域的新应用和功能提供了可能,推动了细胞生物学领域的发展。具体而言,微流控技术为增强细胞生物学研究提供了有前途的工具,因为它能够精确控制细胞环境,通过多路复用轻松模拟异质细胞环境,并通过单细胞水平的高内涵筛选分析获取亚细胞信息。根据具体目标和应用,已经开发了各种微流控中的细胞操纵技术。在这篇综述中,我们通过对操纵时施加的外力进行分类,考察了微流控中细胞操纵技术的最新进展:(i)光学,(ii)磁,(iii)电,(iv)机械和(v)其他操纵。我们还重点介绍了这些技术的起源,并在有可用关键示例的情况下讨论了未来的发展方向。