第十一章。基于膜的流动化学系统

J. Sánchez-Marcano
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引用次数: 1

摘要

在基于膜的流动化学系统中,用催化剂或生物催化剂激活致密或多孔膜,以便在同一单元中将反应和分离耦合起来,从而产生一种称为催化膜反应器(CMR)的强化过程。在本章中,定义了cmr的基本原理和概念,并描述了不同的配置:选择性产物去除的cmr,选择性添加反应物的cmr,流式膜反应器(FTMRs)和酶促膜反应器(EMRs)。此外,还简要介绍了一些同行评议文献和专著的代表性作品。cmr已经成功地应用于实验室规模,通过选择性去除氧化和氢化反应中的产物来提高受热力学平衡限制的反应的转化,并改善催化剂和底物之间的接触,同时降低传质限制。cmr已经被证明在高附加值化学品生产的生物转化中具有经济和战略价值。这种在低温下进行的过程允许使用商业上可用的聚合物膜。高温无机膜在高温反应中的应用前景广阔。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Chapter 11. Flow Chemistry Systems Based on Membranes
In flow chemistry systems based on membranes, a dense or porous membrane is activated with a catalyst or a biocatalyst in order to couple reaction and separation in the same unit, resulting in an intensified process called catalytic membrane reactor (CMR). In this chapter the basic principles and concepts of CMRs are defined and the different configurations: CMRs for selective product removal, CMRs for the selective additions of reactants, flow-through membrane reactors (FTMRs) and enzymatic membrane reactors (EMRs) are described. Furthermore, a short account of some representative works of the peer reviewed literature and monographs works is given. CMRs have been successfully applied at laboratory scale to enhance the conversion of reactions which are limited by the thermodynamic equilibrium through selective product removal, in oxidation and hydrogenation reactions and improving the contact between the catalyst and substrates while decreasing mass transfer limitations. CMRs have already proven economic and strategic value in bio-transformations for the high-added value chemicals production. Such processes which take place at low temperature allow the use of polymer membranes which are commercially available materials. Further advances are expected on the development inorganic membranes for high temperature applications to be applied in high temperature reactions.
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