Dressler Oliver J, Maceiczyk Richard M, Chang Soo-Ik, deMello Andrew J
1Department of Chemistry & Applied Biosciences, Institute for Chemical and Bioengineering, ETH Zürich, Zürich, Switzerland.
J Biomol Screen. 2014 Apr;19(4):483-96. doi: 10.1177/1087057113510401. Epub 2013 Nov 15.
Over the past two decades, the application of microengineered systems in the chemical and biological sciences has transformed the way in which high-throughput experimentation is performed. The ability to fabricate complex microfluidic architectures has allowed scientists to create new experimental formats for processing ultra-small analytical volumes in short periods and with high efficiency. The development of such microfluidic systems has been driven by a range of fundamental features that accompany miniaturization. These include the ability to handle small sample volumes, ultra-low fabrication costs, reduced analysis times, enhanced operational flexibility, facile automation, and the ability to integrate functional components within complex analytical schemes. Herein we discuss the impact of microfluidics in the area of high-throughput screening and drug discovery and highlight some of the most pertinent studies in the recent literature.
在过去二十年中,微工程系统在化学和生物科学中的应用改变了高通量实验的进行方式。制造复杂微流控结构的能力使科学家能够创造新的实验形式,以便在短时间内高效处理超小分析体积。此类微流控系统的发展受到一系列伴随小型化而来的基本特性的推动。这些特性包括处理小样本体积的能力、超低的制造成本、缩短的分析时间、增强的操作灵活性、易于自动化,以及在复杂分析方案中集成功能组件的能力。在此,我们讨论微流控在高通量筛选和药物发现领域的影响,并重点介绍近期文献中一些最相关的研究。