Biocatalysis and Strategies for Enzyme Improvement

Yauheniya Osbon, Manish Kumar
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引用次数: 17

Abstract

Biotransformation with the help of enzymes can greatly improve the rate and stereospecificity of reactions in organic chemistry. However, the use of organic solvents and harsh conditions in biotechnological applications often correlates with enzyme deactivation or a dramatic drop in catalytic activity. Detailed molecular understanding of the protein structure and conformational dynamics allows us to address such limitations and to finely tune catalytic activity by modifying the solvent, the support, or the active site of the enzyme. Along with physico-chemical methods of enzyme stabilization, such as additive approach, chemical modification, and immobilization of enzymes, approaches of enzyme engineering based on DNA recombination can be used to enhance the performance of biocatalysts. Since successful synthetic and industrial applications of biocatalysts require systems that are not only stable and active, but can also be reused in a continuous flow process reducing the production cost, the goal of this chapter is to introduce the reader to the vast scope of techniques available for enzyme improvement, highlighting their opportunities and limitations for the real-world technological processes.
生物催化与酶改善策略
在有机化学中,利用酶进行生物转化可以大大提高反应的速率和立体特异性。然而,在生物技术应用中使用有机溶剂和恶劣条件往往与酶失活或催化活性急剧下降有关。对蛋白质结构和构象动力学的详细分子理解使我们能够解决这些限制,并通过修改溶剂、载体或酶的活性位点来微调催化活性。除了添加剂法、化学修饰法和固定化法等酶稳定的物理化学方法外,基于DNA重组的酶工程方法也可用于提高生物催化剂的性能。由于生物催化剂的成功合成和工业应用不仅需要稳定和活性的系统,而且还可以在连续流动过程中重复使用,从而降低生产成本,本章的目标是向读者介绍用于酶改进的广泛技术范围,强调它们在现实世界技术过程中的机会和局限性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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