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FoRSR1 Is Important for Conidiation, Fusaric Acid Production, and Pathogenicity in Fusarium oxysporum f. sp. ginseng

分生孢子 生物 尖孢镰刀菌 镰刀菌酸 人参 菌丝 微生物学 菌丝体 枯萎病 次生代谢 突变体 毒力 镰刀菌 植物 基因 生物化学 生物合成 替代医学 病理 医学
作者
Cui Yang,Jing Sun,Zhaoqun Wu,Maozhu Jiang,Dayong Li,Xin-Jie Wang,Chunxiang Zhou,Xuecheng Liu,Zhiguo Ren,Jun Wang,Manli Sun,Wenxian Sun,Jie Gao
出处
期刊:Phytopathology [Scientific Societies]
卷期号:113 (7): 1244-1253 被引量:2
标识
DOI:10.1094/phyto-10-22-0372-r
摘要

The root rot disease caused by Fusarium oxysporum f. sp. ginseng is one of the most destructive diseases of ginseng, an economically important herb. However, little is known about the pathogen's toxin biosynthesis or the molecular mechanisms regulating infection of ginseng. In this study we identified and functionally characterized the FoRSR1 gene that encodes a Ras-related (RSR) small GTPase homologous to yeast Rsr1 in F. oxysporum f. sp. ginseng. Disruption of FoRSR1 resulted in a significant reduction in mycelial dry weight in liquid cultures, although vegetative growth rate was not affected on culture plates. Notably, the Forsr1 mutant exhibited blunted and swollen hyphae with multi-nucleated compartments. It produced fewer and morphologically abnormal conidia and was defective in chlamydospore formation. In infection assays with ginseng roots, the Forsr1 mutant was significantly less virulent and caused only limited necrosis at the wounding sites. Deletion of FoRSR1 also affected pigmentation, autophagy, and production of fusaric acid. Furthermore, the expression of many candidate genes involved in secondary metabolism was significantly downregulated in the mutant, suggesting that FoRSR1 is also important for secondary metabolism. Overall, our results indicated that FoRSR1 plays important roles in conidiation, vacuolar morphology, secondary metabolism, and pathogenesis in F. oxysporum f. sp. ginseng.

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