间作
根际细菌
铁载体
抵抗性
农学
作物
微生物群
生物
生物强化
营养物
生物技术
微量营养素
细菌
根际
生物信息学
化学
基因
生物化学
生态学
抗生素耐药性
遗传学
有机化学
整合子
作者
Nanqi Wang,Tianqi Wang,Yu Chen,Ming Wang,Qiaofang Lu,Kunguang Wang,Zhechao Dou,Zhiguang Chi,Wei Qiu,Jing Dai,Lei Niu,Jianyu Cui,Zhong Wei,Fusuo Zhang,Rolf Kümmerli,Yuanmei Zuo
标识
DOI:10.1038/s41467-024-45207-0
摘要
Abstract Intercropping has the potential to improve plant nutrition as well as crop yield. However, the exact mechanism promoting improved nutrient acquisition and the role the rhizosphere microbiome may play in this process remains poorly understood. Here, we use a peanut/maize intercropping system to investigate the role of root-associated microbiota in iron nutrition in these crops, combining microbiome profiling, strain and substance isolation and functional validation. We find that intercropping increases iron nutrition in peanut but not in maize plants and that the microbiota composition changes and converges between the two plants tested in intercropping experiments. We identify a Pseudomonas secreted siderophore, pyoverdine, that improves iron nutrition in glasshouse and field experiments. Our results suggest that the presence of siderophore-secreting Pseudomonas in peanut and maize intercropped plays an important role in iron nutrition. These findings could be used to envision future intercropping practices aiming to improve plant nutrition.
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