代谢组学
代谢途径
蜜环菌
尿嘧啶
嘧啶代谢
生物化学
代谢组
生物
次生代谢
对抗
新陈代谢
菌丝体
代谢物
生物合成
植物
酶
生物信息学
嘌呤
受体
DNA
作者
Jian Ming Zhan,Jing Yuan,Jian‐Wei Liu,Fengming Zhang,Fuqiang Yu,Yanliang Wang
出处
期刊:Mycology
[Taylor & Francis]
日期:2023-07-03
卷期号:14 (3): 264-274
被引量:4
标识
DOI:10.1080/21501203.2023.2238753
摘要
The genus Armillaria has high edible and medical values, with zones of antagonism often occurring when different species are paired in culture on agar media, while the antagonism-induced metabolic alteration remains unclear. Here, the metabolome of mycelial exudates of two Chinese Armillaria biological species, C and G, co-cultured or cultured separately was analysed to discover the candidate biomarkers and the key metabolic pathways involved in Armillaria antagonists. A total of 2,377 metabolites were identified, mainly organic acids and derivatives, lipids and lipid-like molecules, and organoheterocyclic compounds. There were 248 and 142 differentially expressed metabolites between group C-G and C, C-G, and G, respectively, and fourteen common differentially expressed metabolites including malate, uracil, Leu-Gln-Arg, etc. Metabolic pathways like TCA cycle and pyrimidine metabolism were significantly affected by C-G co-culture. Additionally, 156 new metabolites (largely organic acids and derivatives) including 32 potential antifungal compounds, primarily enriched into biosynthesis of secondary metabolites pathways were identified in C-G co-culture mode. We concluded that malate and uracil could be used as the candidate biomarkers, and TCA cycle and pyrimidine metabolism were the key metabolic pathways involved in Armillaria antagonists. The metabolic changes revealed in this study provide insights into the mechanisms underlying fungal antagonists.
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