Department of Chemistry and Biochemistry, University of North Carolina at Greensboro, Greensboro, NC, USA.
Nat Prod Rep. 2022 Aug 17;39(8):1557-1573. doi: 10.1039/d1np00070e.
Covering: 2002 to 2020In their natural environment, fungi must compete for resources. It has been hypothesized that this competition likely induces the biosynthesis of secondary metabolites for defence. In a quest to discover new chemical diversity from fungal cultures, a growing trend has been to recapitulate this competitive environment in the laboratory, essentially growing fungi in co-culture. This review covers fungal-fungal co-culture studies beginning with the first literature report in 2002. Since then, there has been a growing number of new secondary metabolites reported as a result of fungal co-culture studies. Specifically, this review discusses and provides insights into (1) rationale for pairing fungal strains, (2) ways to grow fungi for co-culture, (3) different approaches to screening fungal co-cultures for chemical diversity, (4) determining the secondary metabolite-producing strain, and (5) final thoughts regarding the fungal-fungal co-culture approach. Our goal is to provide a set of practical strategies for fungal co-culture studies to generate unique chemical diversity that the natural products research community can utilize.
2002 年至 2020 年
在自然环境中,真菌必须为争夺资源而竞争。有人假设,这种竞争可能会促使次级代谢产物的生物合成用于防御。为了从真菌培养物中发现新的化学多样性,越来越多的趋势是在实验室中再现这种竞争环境,本质上是在共培养中培养真菌。本综述涵盖了从 2002 年首次文献报道开始的真菌-真菌共培养研究。自那时以来,由于真菌共培养研究,已经有越来越多的新次级代谢产物被报道。具体而言,本综述讨论并提供了以下方面的见解:(1)配对真菌菌株的原理,(2)用于共培养的真菌培养方法,(3)筛选真菌共培养物以获得化学多样性的不同方法,(4)确定产生次级代谢产物的菌株,以及(5)关于真菌-真菌共培养方法的最终思考。我们的目标是为真菌共培养研究提供一套实用策略,以产生独特的化学多样性,供天然产物研究界利用。