酶
蛋白质工程
化学
催化作用
合成生物学
定向进化
催化效率
生物催化
纳米技术
生化工程
计算生物学
生物化学
计算机科学
生物
工程类
材料科学
基因
离子液体
突变体
作者
Kai Chen,Frances H. Arnold
出处
期刊:Nature Catalysis
[Springer Nature]
日期:2020-01-20
卷期号:3 (3): 203-213
被引量:587
标识
DOI:10.1038/s41929-019-0385-5
摘要
The efficiency, selectivity and sustainability benefits offered by enzymes are enticing chemists to consider biocatalytic transformations to complement or even supplant more traditional synthetic routes. Increasing demands for efficient and versatile synthetic methods, combined with powerful new discovery and engineering tools, has prompted innovations in biocatalysis, especially the development of new enzymes for precise transformations or ‘molecular editing’. As a result, the past decade has witnessed an impressive expansion of the catalytic repertoire of enzymes to include new and useful transformations not known (or relevant) in the biological world. In this Review we illustrate various ways in which researchers have approached using the catalytic machineries of enzymes for new-to-nature transformations. These efforts have identified genetically encoded catalysts that can be tuned and diversified by engineering the protein sequence, particularly by directed evolution. Discovery and improvement of these new enzyme activities is opening a floodgate that connects the chemistry of the biological world to that invented by humans over the past 100 years. Advances in enzyme performance and capabilities are making them increasingly attractive to synthetic chemists. In this Review Chen and Arnold outline the ways that enzymes have been engineered to achieve reactivities well beyond their original functions.
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