Woodcraft Clara, Chooi Yit-Heng, Roux Indra
School of Molecular Sciences, The University of Western Australia, Perth, WA 6009, Australia.
Nat Prod Rep. 2023 Jan 25;40(1):158-173. doi: 10.1039/d2np00055e.
Covering: up to May 2022Fungal genetics has transformed natural product research by enabling the elucidation of cryptic metabolites and biosynthetic steps. The enhanced capability to add, subtract, modulate, and rewrite genes CRISPR/Cas technologies has opened up avenues for the manipulation of biosynthetic gene clusters across diverse filamentous fungi. This review discusses the innovative and diverse strategies for fungal natural product discovery and engineering made possible by CRISPR/Cas-based tools. We also provide a guide into multiple angles of CRISPR/Cas experiment design, and discuss current gaps in genetic tool development for filamentous fungi and the promising opportunities for natural product research.
截至2022年5月
真菌遗传学通过揭示隐秘代谢产物和生物合成步骤,改变了天然产物研究。CRISPR/Cas技术增强了添加、删除、调节和重写基因的能力,为操纵各种丝状真菌中的生物合成基因簇开辟了道路。本综述讨论了基于CRISPR/Cas的工具为真菌天然产物发现和工程带来的创新和多样策略。我们还提供了CRISPR/Cas实验设计多方面的指南,并讨论了丝状真菌遗传工具开发目前存在的差距以及天然产物研究的广阔前景。