Root acquisitive traits mirror the functional modules of root-associated fungi

IF 9.8 1区 农林科学 Q1 SOIL SCIENCE Soil Biology & Biochemistry Pub Date : 2024-01-17 DOI:10.1016/j.soilbio.2024.109317
Gaigai Ding , Wenjing Zeng , Lijuan Sun , Fu-Sheng Chen , Yun Lyu , Jin Xu , Tao Yan , Huimin Wang , Zeqing Ma
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Abstract

The interactions among soil microbiota can be indicated by co-occurrence network analysis. The root-associated and soil-associated fungal networks are likely to be influenced by aboveground energy and belowground resources supplies. Most studies have focused on the role of soil nutrients in driving the network, yet the root's role remains elusive. Here, we chose a pure larch forest plantation to control the tree species, age, and soil nitrogen, collected more than 8000 root tips, quantified six root traits, and investigated the compositions of root and rhizosphere soil fungal communities, and network modules across 27 plots. We found that each root tip harboured distinctive fungal species interactions, even in the same tree with a similar age and soil nitrogen. Root-associated fungal OTUs accounted for 14% of soil-associated fungal OTUs, and they only formed a few functional modules, which correlated with three key resource-related root traits: root branching intensity, specific root length, and root diameter. Forest age, linked with root traits, exerts a greater role than nitrogen addition in constraining the complexity and stability of fungal interactions. In contrast, the rhizosphere soil fungi showed complex interactions and formed nearly 120 modules, and several of the key soil fungal modules (higher relative abundance) were influenced by soil nitrogen and phosphorous availability. These results demonstrated that root acquisitive traits are the central factors influencing the root-associated fungal interactions, with a systematic co-varied phenomenon in the root acquisitive traits-microbe functional modules across a wide range of soil nitrogen levels.

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根获取性状反映了根相关真菌的功能模块
土壤微生物群之间的相互作用可以通过共生网络分析来显示。根相关真菌网络和土壤相关真菌网络很可能受到地上能量和地下资源供应的影响。大多数研究都集中于土壤养分在驱动网络中的作用,但根部的作用仍然难以捉摸。在这里,我们选择了一片纯落叶松人工林,控制了树种、树龄和土壤氮,采集了8000多个根尖,量化了根的六种性状,并调查了27个地块的根和根圈土壤真菌群落的组成以及网络模块。我们发现,即使在树龄和土壤氮含量相似的同一棵树上,每个根尖都有独特的真菌物种相互作用。根相关真菌 OTU 占土壤相关真菌 OTU 的 14%,它们只形成了几个功能模块,这些功能模块与三个关键的资源相关根性状有关:根分枝强度、比根长度和根直径。在限制真菌相互作用的复杂性和稳定性方面,与根系特征相关的林龄比氮添加发挥了更大的作用。相比之下,根圈土壤真菌表现出复杂的相互作用,形成了近 120 个模块,其中几个关键的土壤真菌模块(相对丰度较高)受到土壤氮和磷供应的影响。这些结果表明,根系获取性状是影响根相关真菌相互作用的核心因素,在广泛的土壤氮素水平范围内,根系获取性状-微生物功能模块存在系统性共变现象。
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来源期刊
Soil Biology & Biochemistry
Soil Biology & Biochemistry 农林科学-土壤科学
CiteScore
16.90
自引率
9.30%
发文量
312
审稿时长
49 days
期刊介绍: Soil Biology & Biochemistry publishes original research articles of international significance focusing on biological processes in soil and their applications to soil and environmental quality. Major topics include the ecology and biochemical processes of soil organisms, their effects on the environment, and interactions with plants. The journal also welcomes state-of-the-art reviews and discussions on contemporary research in soil biology and biochemistry.
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