Poupin M J, Ledger T, Roselló-Móra R, González B
Laboratorio de Bioingeniería, Facultad de Ingeniería y Ciencias, Universidad Adolfo Ibáñez, 7941169, Santiago, Chile.
Center of Applied Ecology and Sustainability (CAPES), Santiago, Chile.
Environ Microbiome. 2023 Feb 17;18(1):9. doi: 10.1186/s40793-023-00466-0.
As holobiont, a plant is intrinsically connected to its microbiomes. However, some characteristics of these microbiomes, such as their taxonomic composition, biological and evolutionary role, and especially the drivers that shape them, are not entirely elucidated. Reports on the microbiota of Arabidopsis thaliana first appeared more than ten years ago. However, there is still a lack of a comprehensive understanding of the vast amount of information that has been generated using this holobiont. The main goal of this review was to perform an in-depth, exhaustive, and systematic analysis of the literature regarding the Arabidopsis-microbiome interaction. A core microbiota was identified as composed of a few bacterial and non-bacterial taxa. The soil (and, to a lesser degree, air) were detected as primary microorganism sources. From the plant perspective, the species, ecotype, circadian cycle, developmental stage, environmental responses, and the exudation of metabolites were crucial factors shaping the plant-microbe interaction. From the microbial perspective, the microbe-microbe interactions, the type of microorganisms belonging to the microbiota (i.e., beneficial or detrimental), and the microbial metabolic responses were also key drivers. The underlying mechanisms are just beginning to be unveiled, but relevant future research needs were identified. Thus, this review provides valuable information and novel analyses that will shed light to deepen our understanding of this plant holobiont and its interaction with the environment.
作为一个共生功能体,植物与其微生物群落有着内在联系。然而,这些微生物群落的一些特征,如它们的分类组成、生物学和进化作用,尤其是塑造它们的驱动因素,尚未完全阐明。关于拟南芥微生物群的报告早在十多年前就已出现。然而,对于利用这个共生功能体所产生的大量信息,仍缺乏全面的了解。本综述的主要目标是对有关拟南芥与微生物群落相互作用的文献进行深入、详尽和系统的分析。确定了一个核心微生物群,它由一些细菌和非细菌类群组成。土壤(以及在较小程度上的空气)被检测为主要的微生物来源。从植物的角度来看,物种、生态型、昼夜节律周期、发育阶段、环境反应以及代谢物的分泌是塑造植物与微生物相互作用的关键因素。从微生物的角度来看,微生物与微生物之间的相互作用、微生物群落中微生物的类型(即有益或有害)以及微生物的代谢反应也是关键驱动因素。其潜在机制刚刚开始被揭示,但已确定了未来相关的研究需求。因此,本综述提供了有价值的信息和新颖的分析,将有助于加深我们对这个植物共生功能体及其与环境相互作用的理解。