过程强化是酶催化的游戏规则改变者

Bastien O. Burek, A. Dawood, F. Hollmann, A. Liese, D. Holtmann
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引用次数: 17

摘要

酶催化,在过去几年中,在鉴定新的酶和新的酶反应性以及优化现有酶方面取得了巨大进展。然而,所得工艺的性能通常仍然有限,例如在生产率、实现的产物浓度和酶的稳定性方面。不同的主题(如有限的比活性、不利的动力学或有限的酶稳定性)可以通过酶工程来解决。另一方面,还有一长串酶工程无法解决的主题。这里的典型例子是不利的反应热力学、多步反应中的选择性或低水溶性。这些挑战只能通过反应系统的调整来解决。过程强化(PI)程序代表了一种达到最合适系统的好方法。PI的总体目标是通过应用创新原则,在资本和运营成本以及产品质量、废物和工艺安全方面实现显著效益。综述的目的是展示PI在酶催化中的当前能力和未来潜力,重点是氧化还原酶类酶。本文的重点是能量输入的替代方法、创新的反应器概念和具有改进性能的反应介质。
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Process Intensification as Game Changer in Enzyme Catalysis
Enzyme catalysis, made tremendous progress over the last years in identification of new enzymes and new enzymatic reactivity’s as well as optimization of existing enzymes. However, the performance of the resulting processes is often still limited, e.g., in regard of productivity, realized product concentrations and the stability of the enzymes. Different topics (like limited specific activity, unfavourable kinetics or limited enzyme stability) can be addressed via enzyme engineering. On the other hand, there is also a long list of topics that are not addressable by enzyme engineering. Here typical examples are unfavourable reaction thermodynamics, selectivity in multistep reactions or low water solubility. These challenges can only be addressed through an adaption of the reaction system. The procedures of process intensification (PI) represent a good approach to reach most suitable systems. The general objective of PI is to achieve significant benefits in terms of capital and operating costs as well as product quality, waste, and process safety by applying innovative principles. The aim of the review is to show the current capabilities and future potentials of PI in enzyme catalysis focused on enzymes of the class of oxidoreductases. The focus of the paper is on alternative methods of energy input, innovative reactor concepts and reaction media with improved properties.
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