Pleiotropic Regulatory Genes as A Tool for Streptomyces Strains Bioprospecting and Improvement

B. Ostash
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引用次数: 1

Abstract

Many taxa within class Actinobacteria, most notably genus Streptomyces, are known for the abundant presence of specialized biosynthetic pathways that convert essential cellular metabolites (amino acids, acyl moieties, such as acetyl-CoA, nucleotides etc.) into diverse natural products (NPs). NPs remain one of the pillars of modern pharmaceutical industry, and use of NPs as antibiotics is perhaps the most notable example of the commercial success of NPs. Nowadays, as humankind faces a formidable challenge to counter the rise of antimicrobial resistance and viral infections, there is renewed interest in streptomycetes as a source of novel NPs. This prompted the investigation of a variety of approaches to discover novel NPs and to improve the production of known ones. The focus of this review is on the use of regulatory genes to discover novel NPs. The two-layered scheme of regulation of NP biosynthesis is described and terms referring to cryptic NP gene cluster are detailed. Major players in global regulatory network are described as well as how their manipulation may be used to access the secondary metabolomes of Streptomyces and Actinobacteria in general. The value of studying the NP regulation in the era of synthetic biology is summarized in the last section.
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多效性调控基因作为链霉菌菌株生物勘探与改良的工具
放线菌纲中的许多分类群,最著名的是链霉菌属,以丰富的特殊生物合成途径而闻名,这些途径将必需的细胞代谢物(氨基酸、酰基部分,如乙酰辅酶a、核苷酸等)转化为各种天然产物(NPs)。NPs仍然是现代制药工业的支柱之一,使用NPs作为抗生素可能是NPs商业成功的最显著例子。如今,由于人类面临着对抗抗菌素耐药性和病毒感染上升的艰巨挑战,人们对链霉菌作为新型NPs的来源重新产生了兴趣。这促使人们研究各种方法来发现新的NPs,并改进已知NPs的生产。本综述的重点是利用调控基因来发现新的NPs。描述了NP生物合成的两层调控方案,并详细介绍了涉及隐性NPgene簇的术语。本文描述了全球调控网络中的主要参与者,以及如何利用它们的操纵来获取链霉菌和放线菌的次级代谢组。最后总结了合成生物学时代研究NP调控的价值。
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