Tobias Vornholt, Florian Leiss-Maier, Woo Jae Jeong, Cathleen Zeymer, Woon Ju Song, Gerard Roelfes, Thomas R. Ward
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引用次数: 0
摘要
人工金属酶(ArMs)的开发旨在扩大酶催化的能力,特别是在新的反应机制方面。人工金属酶通常利用酶中天然不存在的金属辅助因子,并将其嵌入专门选择或设计的蛋白质支架中。ArMs 已被开发用于广泛的天然和非天然反应,凸显了其在生物催化或代谢工程等领域带来革命性变化的潜力。与此同时,复制天然酶的催化能力是一项极具挑战性的任务,要使 ArM 催化广泛应用,还需要克服几个限制因素。在本入门指南中,我们将介绍 ArMs 设计和工程方面的最新技术,介绍最佳实践以及重要实例和成就。此外,我们还考虑了人工金属催化剂的潜在应用以及突出挑战,并讨论了如何在未来几年内解决这些问题。人工金属酶利用酶中天然不存在的金属辅助因子,并将其嵌入特选或设计的蛋白质支架中。在本入门指南中,Vornholt 等人介绍了设计和工程化人工金属酶的最佳实践。
The development of artificial metalloenzymes (ArMs) aims to expand the capabilities of enzymatic catalysis, most notably towards new reaction mechanisms. Frequently, ArMs harness metal cofactors that are not naturally found in enzymes and embed these in specifically selected or designed protein scaffolds. ArMs have been developed for a wide range of natural and non-natural reactions, underscoring their potential to revolutionize fields such as biocatalysis or metabolic engineering. At the same time, replicating the catalytic prowess of natural enzymes is a highly challenging task, and several limitations need to be overcome to make ArM catalysis widely applicable. In this Primer, we introduce the state of the art in designing and engineering ArMs, describing best practices and important examples and achievements. Moreover, we consider potential applications of ArMs, as well as outstanding challenges, and discuss how these may be addressed in the coming years. Artificial metalloenzymes harness metal cofactors that are not naturally found in enzymes and embed these in specifically selected or designed protein scaffolds. In this Primer, Vornholt et al. describe the best practices for designing and engineering artificial metalloenzymes.