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通过根际微生物群落调节减轻水分亏缺对植物生长的抑制

Alleviation of water-deficit inhibition of plant growth by rhizosphere microbiota conditioning.

作者信息

Angot Victor, Thiour-Mauprivez Clémence, Schellenberger Romain, Lamboeuf Mickaël, Crépin Olivier, Garmyn Dominique, Blouin Manuel, Jacquiod Samuel

机构信息

UMR Agroécologie Dijon, Université de Bourgogne Europe, Institut Agro Dijon, INRAE, 17 rue de Sully, Dijon, 21065, France.

出版信息

New Phytol. 2025 Sep;247(6):2914-2926. doi: 10.1111/nph.70362. Epub 2025 Jul 3.

DOI:10.1111/nph.70362
PMID:40607612
Abstract

Rhizosphere microbiota conditioning is a promising strategy to enhance plant growth. We conditioned the rhizosphere microbiota of Brassica juncea to water deficit to assess its impact on plant growth. In a glasshouse, plants were first grown under well-watered conditions, then exposed to moderate (MD, pF = 2.3) or extreme (ED, pF = 3.5) water deficits. We extracted and inoculated the rhizosphere microbiota to new plants and repeated this process 10 times. Control plants were kept well-watered. We monitored changes in plant phenotypes and in rhizosphere microbial communities (bacteria and eukaryotes). The initial water-deficit growth inhibition of plants was successfully alleviated by 19.3% in MD and 29.4% in ED after conditioning (MD: from -35.6% to -16.3%; ED: from -56.8% to -27.4%). This beneficial effect on plants was not observed during the well-watered phases, suggesting an active role of the microbiota when water became scarce. The increase in plant growth correlated with aggregated rhizosphere soil and significantly matched changes in the bacterial community, featuring reduced diversity and increased biofilm production capacity along the conditioning process. We showed that microbiota conditioning was a fast and efficient way to achieve better plant growth under adverse conditions, likely via the adaptation capabilities of the rhizosphere bacterial community.

摘要

根际微生物群调控是促进植物生长的一种很有前景的策略。我们对芥菜的根际微生物群进行水分亏缺处理,以评估其对植物生长的影响。在温室中,植物首先在水分充足的条件下生长,然后暴露于中度(MD,pF = 2.3)或极端(ED,pF = 3.5)水分亏缺环境中。我们提取根际微生物群并接种到新植物上,重复这个过程10次。对照植物保持水分充足。我们监测了植物表型和根际微生物群落(细菌和真核生物)的变化。经过调控后,植物最初因水分亏缺而导致的生长抑制在MD中成功缓解了19.3%,在ED中缓解了29.4%(MD:从-35.6%降至-16.3%;ED:从-56.8%降至-27.4%)。在水分充足阶段未观察到这种对植物的有益作用,这表明在水分稀缺时微生物群发挥了积极作用。植物生长的增加与根际土壤团聚有关,并且与细菌群落的变化显著匹配,其特征是在调控过程中多样性降低和生物膜产生能力增加。我们表明,微生物群调控是在不利条件下实现更好植物生长的一种快速有效的方法,可能是通过根际细菌群落的适应能力实现的。

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