Britton Joshua, Stubbs Keith A, Weiss Gregory A, Raston Colin L
Department of Chemistry, University of California, Irvine, CA, 92697-2025, USA.
Centre for NanoScale Science and Technology, College of Science and Engineering, Flinders University, Adelaide, SA, 5001, Australia.
Chemistry. 2017 Sep 27;23(54):13270-13278. doi: 10.1002/chem.201700888. Epub 2017 Aug 16.
Driving chemical transformations in dynamic thin films represents a rapidly thriving and diversifying research area. Dynamic thin films provide a number of benefits including large surface areas, high shearing rates, rapid heat and mass transfer, micromixing and fluidic pressure waves. Combinations of these effects provide an avant-garde style of conducting chemical reactions with surprising and unusual outcomes. The vortex fluidic device (VFD) has proved its capabilities in accelerating and increasing the efficiencies of numerous organic, materials and biochemical reactions. This Minireview surveys transformations that have benefited from VFD-mediated processing, and identifies concepts driving the effectiveness of vortex-based dynamic thin films.
驱动动态薄膜中的化学转变是一个迅速蓬勃发展且日益多样化的研究领域。动态薄膜具有诸多优点,包括大表面积、高剪切速率、快速的传热和传质、微混合以及流体压力波。这些效应的组合提供了一种前沿的进行化学反应的方式,能产生令人惊讶和不寻常的结果。涡流流体装置(VFD)已证明其在加速和提高众多有机、材料及生化反应效率方面的能力。本综述概述了受益于VFD介导处理的转变,并确定了驱动基于涡流的动态薄膜有效性的概念。