季节会影响野生蒲葵种群的根部微生物群吗?

IF 4.3 3区 材料科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC ACS Applied Electronic Materials Pub Date : 2024-06-22 DOI:10.1016/j.rhisph.2024.100929
Sonia Garcia Mendez , Stephanie Fordeyn , Caroline De Tender , Sofie Goormachtig , Anne Willems
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引用次数: 0

摘要

低温是温带气候区冬季的主要特征之一,对农业造成了限制,因为低温会对植物的生长和发育产生负面影响。为了缓解低温压力,植物可以与土壤中的细菌建立共生关系。一年生蓝草(Poa annua)适应低温,分布于全球,并在包括极地在内的多种环境中定居。在此,我们于2019年和2020年的9月(夏季样本)和3月(冬季样本)在比利时佛兰德斯的五个地点随机采收了一年生蓝花酢浆草(Poa annua)植物。每个时间点、每个地点和每个季节都采集了 10 个块状土壤、根圈土壤和根内圈样本,共计 570 个样本。由于冬季根系微生物群中的特化细菌可能会减少寒冷的负面影响,我们希望了解冬季温度如何影响根系微生物群。16S rRNA 基因的扩增子测序显示,位置是对细菌群落组成影响最大的因素,其次是区系(根系内圈、根瘤层和大块土壤)、季节和年份。虽然季节不是根系内膜的主要决定因素,但通过对夏季和冬季样本的比较,发现了富含寒冷的根系定殖细菌家族。有趣的是,与 Massilia 相对应的一个 ASV 在冬季的所有地点都富集,因此,它可能代表了一个有趣的分类群,可用于开发生物刺激剂,帮助植物应对寒冷条件。
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Do seasons impact the root microbiome of wild Poa annua populations?

Low temperatures, one of the main characteristics of winters in temperate climates, are restrictive for agriculture, because they negatively affect plant growth and development. To alleviate cold stress, plants are able to establish a symbiosis with soil bacteria. Annual bluegrass (Poa annua) is adapted to low temperatures, has a global distribution, and colonizes a wide range of environments, including polar regions. Here, Poa annua plants were harvested randomly within a one square meter plot at five sites in Flanders, Belgium, during September (summer samples) and March (winter samples) over 2019 and 2020. For each time point, location and season, ten samples of bulk soil, rhizosphere soil and root endosphere were obtained, making a total of 570 samples. As specialized bacteria in the winter root microbiome may reduce the negative impact of cold, we wanted to unravel how winter temperatures affect the root microbiome. Amplicon sequencing of 16S rRNA genes revealed that location was the factor with the largest influence on the bacterial community composition, followed by compartment (root endosphere, rhizosphere, and bulk soil), season, and year. While season was not the main determining factor of the root endosphere, comparison of the summer and winter samples allowed the identification of cold-enriched root-colonizing bacterial families. Interestingly, one ASV corresponding to Massilia was enriched in all sites during the winter season and, thus, may represent an interesting taxonomic group for the development of biostimulants to help plants cope with cold conditions.

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