Key Laboratory for Green Chemical Technology of Ministry of Education, School of Chemical Engineering and Technology, Tianjin University, Tianjin 300072, China.
Chem Soc Rev. 2015 Jan 7;44(1):103-18. doi: 10.1039/c4cs00215f. Epub 2014 Oct 9.
In nature, the biological membrane can selectively transport essential small molecules/ions through facilitated diffusion via carrier proteins. Intrigued by this phenomenon and principle, membrane researchers have successfully employed synthetic carriers and carrier-mediated reversible reactions to enhance the separation performance of synthetic membranes. However, the existing facilitated transport membranes as well as the relevant facilitated transport theories have scarcely been comprehensively reviewed in the literature. This tutorial review primarily covers the two aspects of facilitated transport theories: carrier-mediated transport mechanisms and facilitated transport chemistries, including the design and fabrication of facilitated transport membranes. The applications of facilitated transport membranes in energy-intensive membrane processes (gas separation, pervaporation, and proton exchange membrane fuel cells) have also been discussed. Hopefully, this review will provide guidelines for the future research and development of facilitated transport membranes with high energy efficiency.
在自然界中,生物膜可以通过载体蛋白进行协助扩散,选择性地运输必需的小分子/离子。受此现象和原理的启发,膜研究人员成功地采用了合成载体和载体介导的可逆反应来提高合成膜的分离性能。然而,现有的促进传递膜以及相关的促进传递理论在文献中很少被全面综述。本综述主要涵盖促进传递理论的两个方面:载体介导的传递机制和促进传递化学,包括促进传递膜的设计和制备。还讨论了促进传递膜在能源密集型膜过程(气体分离、渗透蒸发和质子交换膜燃料电池)中的应用。希望本综述能为具有高能效的促进传递膜的未来研究和开发提供指导。