Unit for Environmental Sciences and Management, Potchefstroom Campus, North-West University, Private Bag X6001, Potchefstroom 2520, South Africa.
Department of Biology, University of Waterloo, Waterloo, ON N2L 3G1, Canada.
Curr Opin Chem Biol. 2024 Apr;79:102427. doi: 10.1016/j.cbpa.2024.102427. Epub 2024 Jan 29.
In the rhizosphere, plants and microbes communicate chemically, especially under environmental stress. Over millions of years, plants and their microbiome have coevolved, sharing various chemicals, including signaling molecules. This mutual exchange impacts bacterial communication and influences plant metabolism. Inter-kingdom signal crosstalk affects bacterial colonization and plant fitness. Beneficial microbes and their metabolomes offer eco-friendly ways to enhance plant resilience and agriculture. Plant metabolites are pivotal in this dynamic interaction between host plants and their interacting beneficial microbes. Understanding these associations is key to engineering a robust microbiome for stress mitigation and improved plant growth. This review explores mechanisms behind plant-microbe interactions, the role of beneficial microbes and metabolomics, and the practical applications for addressing climate change's impact on agriculture. Integrating beneficial microbes' activities and metabolomics' application to study metabolome-driven interaction between host plants and their corresponding beneficial microbes holds promise for enhancing crop resilience and productivity.
在根际中,植物和微生物通过化学物质进行交流,尤其是在环境压力下。经过数百万年的共同进化,植物及其微生物组共享了各种化学物质,包括信号分子。这种相互交换影响了细菌的通讯,并影响了植物的新陈代谢。种间信号串扰影响了细菌的定植和植物的适应性。有益微生物及其代谢组为提高植物的弹性和农业提供了环保的方法。植物代谢物在宿主植物与其相互作用的有益微生物之间的这种动态相互作用中起着关键作用。了解这些关联是为缓解压力和改善植物生长而构建稳健微生物组的关键。本综述探讨了植物-微生物相互作用的机制、有益微生物和代谢组学的作用,以及应对气候变化对农业影响的实际应用。整合有益微生物的活性和代谢组学的应用,研究宿主植物与其相应有益微生物之间受代谢组驱动的相互作用,有望提高作物的弹性和生产力。