Angeli Charitomeni, Atienza-Sanz Sara, Schröder Simon, Hein Annika, Li Yongxin, Argyrou Alexander, Osipyan Angelina, Terholsen Henrik, Schmidt Sandy
Department of Chemical and Pharmaceutical Biology, Groningen Research Institute of Pharmacy, University of Groningen, Antonius Deusinglaan 1, Groningen 9713AV, The Netherlands.
ACS Catal. 2024 Dec 17;15(1):310-342. doi: 10.1021/acscatal.4c05268. eCollection 2025 Jan 3.
The biological formation of nitrogen-nitrogen (N-N) bonds represents intriguing reactions that have attracted much attention in the past decade. This interest has led to an increasing number of N-N bond-containing natural products (NPs) and related enzymes that catalyze their formation (referred to in this review as NNzymes) being elucidated and studied in greater detail. While more detailed information on the biosynthesis of N-N bond-containing NPs, which has only become available in recent years, provides an unprecedented source of biosynthetic enzymes, their potential for biocatalytic applications has been minimally explored. With this review, we aim not only to provide a comprehensive overview of both characterized NNzymes and hypothetical biocatalysts with putative N-N bond forming activity, but also to highlight the potential of NNzymes from a biocatalytic perspective. We also present and compare conventional synthetic approaches to linear and cyclic hydrazines, hydrazides, diazo- and nitroso-groups, triazenes, and triazoles to allow comparison with enzymatic routes via NNzymes to these N-N bond-containing functional groups. Moreover, the biosynthetic pathways as well as the diversity and reaction mechanisms of NNzymes are presented according to the direct functional groups currently accessible to these enzymes.
氮-氮(N-N)键的生物形成代表了有趣的反应,在过去十年中备受关注。这种关注使得越来越多含N-N键的天然产物(NPs)以及催化其形成的相关酶(在本综述中称为NN酶)被阐明并得到更详细的研究。虽然近年来才获得有关含N-N键NPs生物合成的更详细信息,这为生物合成酶提供了前所未有的来源,但其在生物催化应用方面的潜力却很少被探索。通过本综述,我们旨在不仅全面概述已表征的NN酶和具有假定N-N键形成活性的假设生物催化剂,还从生物催化角度突出NN酶的潜力。我们还展示并比较了合成线性和环状肼、酰肼、重氮和亚硝基基团、三氮烯和三唑的传统方法,以便与通过NN酶合成这些含N-N键官能团的酶促途径进行比较。此外,根据这些酶目前可作用的直接官能团,介绍了NN酶的生物合成途径以及多样性和反应机制。