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Journal of Zhejiang University SCIENCE B

ISSN 1673-1581(Print), 1862-1783(Online), Monthly

Harnessing chemical communication in plant–microbiome and intra-microbiome interactions

Abstract: Chemical communication in plant-microbiome and intra-microbiome interactions weaves a complex network, critically shaping ecosystem stability and agricultural productivity. This non-contact interaction is driven by small-molecule signals that orchestrate crosstalk dynamics and beneficial association. Plants leverage these signals to distinguish between pathogens and beneficial microbes, dynamically modulate immune responses, and secrete exudates to recruit a beneficial microbiome, while microbes in turn influence plant nutrient acquisition and stress resilience. Such bidirectional chemical dialogues underpin nutrient cycling, co-evolution, microbiome assembly, and plant resistance. However, knowledge gaps persist regarding validating the key molecules involved in plant-microbe interactions. Interpreting chemical communication requires multi-omics integration to predict key information, genome editing and click chemistry to verify the function of biomolecules, and artificial intelligence (AI) models to improve resolution and accuracy. This review helps advance the understanding of chemical communication and provides theoretical support for agriculture to cope with food insecurity and climate challenges.

Key words: Plant-microbiome interaction; Intra-microbiome interaction; Chemical communication; Click chemistry; Genome editing; Artificial intelligence (AI)

Chinese Summary  <11> 植物-微生物组和微生物组内相互作用中化学通讯的应用

李泓甫1,2,3,胡雅馨1,2,3,陈思齐1,2,3,Yusufjon GAFFOROV4,王蒙岑1,2,3,5,刘晓玉6
1浙江大学农业与生物技术学院,中国杭州市,310058
2水稻生物育种全国重点实验室,农业农村部作物病虫分子生物学重点实验室,浙江大学,中国杭州市,310058
3浙江省作物病虫生物学重点实验室,浙江省作物病虫绿色防控技术工程研究中心,浙江大学农药与环境毒理研究所,中国杭州市,310058
4新乌兹别克斯坦大学中亚发展研究中心,塔什干市,100007,乌兹别克斯坦
5北海道大学农学研究院农业科学前沿全球教育项目,札幌市,060-0808,日本
6澳大利亚植物能量生物学卓越研究中心,西澳大利亚大学,珀斯市,西澳大利亚州6430,澳大利亚
摘要:植物-微生物群以及微生物群内的化学通讯编织出一个复杂的网络,对生态系统稳定性和农业生产力具有重要影响。这种非接触式的相互作用由小分子信号驱动,这些信号协调交互对话的动态并促进有益的互作关系。植物利用这些信号来区分病原体与有益微生物,动态调节免疫反应,并分泌根系外泌物以招募有益微生物群;而微生物则反过来影响植物的养分获取和抗逆能力。这种双向化学对话支撑着养分循环、共同进化、微生物群组装以及植物的抗性。然而,目前在验证参与植物-微生物互作的关键分子方面仍存在知识空白。解析化学通讯需要整合多组学预测关键信息,利用基因组编辑和点击化学来验证生物分子的功能,并借助人工智能(AI)模型来提升解析的分辨率和准确性。本综述旨在推动对化学通讯的理解,并为农业应对粮食安全与气候挑战提供理论支持。

关键词组:植物-微生物组相互作用;微生物组内相互作用;化学通讯;点击化学;基因组编辑;人工智能


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DOI:

10.1631/jzus.B2500099

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On-line Access:

2025-10-21

Received:

2025-03-02

Revision Accepted:

2025-08-03

Crosschecked:

2025-10-21

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