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与微生物群描述符相关的植物遗传基础为一种新的全生物通用基因理论提供了线索。

Plant Genetic Bases Associated With Microbiota Descriptors Shed Light Into a Novel Holobiont Generalist Genes Theory.

作者信息

Maillet Loeiz, Norest Manon, Kautsky Adam, Geraci Anna, Oddo Elisabetta, Troia Angelo, Guillerm-Erckelboudt Anne-Yvonne, Falentin Cyril, Rousseau-Gueutin Mathieu, Chèvre Anne-Marie, Istace Benjamin, Cruaud Corinne, Belser Caroline, Aury Jean-Marc, Schicchi Rosario, Frachon Léa, Bartoli Claudia

机构信息

IGEPP, INRAE, Institut Agro, Université de Rennes, Le Rheu, France.

Department of Biological, Chemical and Pharmaceutical Sciences and Technologies (STEBICEF), Università Degli Studi di Palermo, Palermo, Italy.

出版信息

Environ Microbiol. 2025 May;27(5):e70108. doi: 10.1111/1462-2920.70108.

Abstract

Plants as animals are associated with a cortege of microbes influencing their health, fitness and evolution. Scientists refer to all living organisms as holobionts, complex genetic units that coevolve simultaneously. This is what has been recently proposed as the hologenome theory. This exciting theory has important implications on animal and plant health; however, it still needs consistent proof to be validated. Indeed, holobionts are still poorly studied in their natural habitats where coevolution processes occur. Compared to animals, wild plant populations are an excellent model to explore the hologenome theory. These sessile holobionts have coevolved with their microbiota for decades, and natural selection and adaptive processes acting on wild plants are likely to regulate the plant-microbe interactions. Here, we conducted a microbiota survey, plant genome sequencing and genome-environmental analysis (GEA) of 26 natural populations of the plant species Brassica rapa. We collected plants over two seasons in Italy and France and analysed the root and rhizosphere microbiota. When conducting GEA, we evidenced neat peaks of association correlating with both fungal and bacterial microbiota. Surprisingly, we found 13 common genes between fungal and bacterial diversity descriptors that we referred to under the name of holobiont generalist genes (HGGs).

摘要

植物与动物一样,都与一群影响其健康、适应性和进化的微生物有关。科学家将所有生物称为全生物,即同时共同进化的复杂遗传单位。这就是最近提出的全息基因组理论。这一令人兴奋的理论对动植物健康具有重要意义;然而,它仍需要一致的证据来验证。事实上,在共同进化过程发生的自然栖息地中,全生物仍然研究不足。与动物相比,野生植物种群是探索全息基因组理论的优秀模型。这些固着的全生物已经与其微生物群共同进化了数十年,作用于野生植物的自然选择和适应过程可能会调节植物与微生物的相互作用。在这里,我们对26个芜菁自然种群进行了微生物群调查、植物基因组测序和基因组-环境分析(GEA)。我们在意大利和法国的两个季节收集了植物,并分析了根和根际微生物群。在进行GEA时,我们发现了与真菌和细菌微生物群相关的明显关联峰值。令人惊讶的是,我们在真菌和细菌多样性描述符之间发现了13个共同基因,我们将其称为全生物通用基因(HGGs)。

https://cdn.ncbi.nlm.nih.gov/pmc/blobs/ea2a/12082060/b35cdfdc2433/EMI-27-e70108-g006.jpg

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