National Engineering Centre for Biotechnology (Shanghai), College of Biotechnology, East China University of Science and Technology, 130 Meilong Road, Shanghai 200237, China.
Biotechnol J. 2018 Feb;13(2). doi: 10.1002/biot.201700416. Epub 2018 Jan 19.
The field of microbiology have traditionally been concerned with and focused on studies at the population level. Microfluidic platforms have emerged as important tools for biology research at a small scale, even down to a single cell level. The spatial and temporal control of cells and stimuli transported by microfluidic channels in well-designed microsystems realized the studies of specific cells in a controlled microenvironment. The true cellular physiology responses, which are obtained mostly by inference from population-level data, could be revealed in this way. Nowadays, significant applications like cell culture, analysis, sorting, genomics, and proteomics at the single cell level have been achieved in microfluidic chips. Highly integrated microfluidic systems with complete bio-analytic functions are also coming forth and of great promise for single cell related physiology, biomedical, and high throughput screening research. Herein, the leads of technologies applied to single cell operation are reviewed. Challenges and potentials of these works are also summarized, to highlight fields for further research.
微生物学领域传统上关注和集中于群体水平的研究。微流控平台已成为小规模生物学研究的重要工具,甚至可以达到单细胞水平。在精心设计的微系统中,通过微流控通道运输的细胞和刺激物的时空控制,可以实现对特定细胞在受控微环境中的研究。通过这种方式,可以揭示出主要通过对群体水平数据进行推断而获得的真正细胞生理学反应。如今,微流控芯片已实现了单细胞水平的细胞培养、分析、分选、基因组学和蛋白质组学等重要应用。具有完整生物分析功能的高度集成微流控系统也正在涌现,对于单细胞相关生理学、生物医学和高通量筛选研究具有巨大的应用前景。本文综述了用于单细胞操作的技术要点。还总结了这些工作的挑战和潜力,以突出进一步研究的领域。