IBM Research - Zurich, Säumerstr. 4, 8803 Rüschlikon, Switzerland.
Chem Soc Rev. 2013 Nov 7;42(21):8494-516. doi: 10.1039/c3cs60118h. Epub 2013 Aug 8.
Microfluidic devices are excellent at downscaling chemical and biochemical reactions and thereby can make reactions faster, better and more efficient. It is therefore understandable that we are seeing these devices being developed and used for many applications and research areas. However, microfluidic devices are more complex than test tubes or microtitre plates and the integration of reagents into them is a real challenge. This review looks at state-of-the-art methods and strategies for integrating various classes of reagents inside microfluidics and similarly surveys how reagents can be released inside microfluidics. The number of methods used for integrating and releasing reagents is surprisingly large and involves reagents in dry and liquid forms, directly-integrated reagents or reagents linked to carriers, as well as active, passive and hybrid release methods. We also made a brief excursion into the field of drug release and delivery. With this review, we hope to provide a large number of examples of integrating and releasing reagents that can be used by developers and users of microfluidics for their specific needs.
微流控器件在缩小化学和生化反应方面表现出色,因此可以使反应更快、更好、更高效。因此,我们看到这些设备被开发并应用于许多应用和研究领域是可以理解的。然而,微流控器件比试管或微量滴定板更复杂,将试剂整合到其中是一个真正的挑战。这篇综述着眼于将各种类别的试剂整合到微流控中的最新方法和策略,同样调查了如何在微流控中释放试剂。用于整合和释放试剂的方法数量惊人地多,涉及干试剂和液体试剂、直接整合的试剂或与载体连接的试剂,以及主动、被动和混合释放方法。我们还简要探讨了药物释放和输送领域。通过这篇综述,我们希望为微流控器件的开发者和使用者提供大量整合和释放试剂的实例,以满足他们的特定需求。