Mai Ngoc Lan, Koo Yoon-Mo
Department of Biological Engineering, Inha University, Incheon, South Korea.
Adv Biochem Eng Biotechnol. 2019;168:105-132. doi: 10.1007/10_2018_77.
The use of whole-cell biocatalysis in ionic liquid (IL)-containing systems has attracted increasing attention in recent years. Compared to bioreactions catalyzed by isolated enzymes, the major advantage of using whole cells in biocatalytic processes is that the cells provide a natural intracellular environment for the enzymes to function with in situ cofactor regeneration. To date, the applications of whole-cell biocatalysis in IL-containing systems have focused on the production of valuable compounds, mainly through reduction, oxidation, hydrolysis, and transesterification reactions. The interaction mechanisms between the ILs and biocatalysts in whole-cell biocatalysis offer the possibility to effectively integrate ILs with biotransformation. This chapter discusses these interaction mechanisms between ILs and whole-cell catalysts. In addition, examples of whole-cell catalyzed reactions with ILs will also be discussed. Graphical Abstract.
近年来,全细胞生物催化在含离子液体(IL)体系中的应用受到了越来越多的关注。与分离酶催化的生物反应相比,在生物催化过程中使用全细胞的主要优势在于细胞为酶提供了一个天然的细胞内环境,使其能够进行原位辅因子再生。迄今为止,全细胞生物催化在含IL体系中的应用主要集中在通过还原、氧化、水解和酯交换反应生产有价值的化合物。离子液体与全细胞生物催化中的生物催化剂之间的相互作用机制为有效地将离子液体与生物转化相结合提供了可能性。本章将讨论离子液体与全细胞催化剂之间的这些相互作用机制。此外,还将讨论使用离子液体进行全细胞催化反应的实例。图形摘要。