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Version 3.22
Publication Type J
Authors Wang, M; Li, EQ; Liu, C; Jousset, A; Salles, JF
Author Full Name Wang, Miao; Li, Erqin; Liu, Chen; Jousset, Alexandre; Salles, Joana F.
Title Functionality of Root-Associated Bacteria along a Salt Marsh Primary Succession
Language English
Document Type Article
Author Keywords functionality; plant-associated bacteria; plant selective force; soil type; salt marsh chronosequence
Abstract Plant-associated bacteria are known for their high functional trait diversity, from which many are likely to play a role in primary and secondary succession, facilitating plant establishment in suboptimal soils conditions. Here we used an undisturbed salt marsh chronosequence that represents over 100 years of soil development to assess how the functional traits of plant associated bacteria respond to soil type, plant species and plant compartment. We isolated and characterized 808 bacterial colonies from the rhizosphere soil and root endosphere of two salt marsh plants, Limonium vulgare and Artemisia maritima, along the chronosequence. From these, a set of 59 strains (with unique BOX-PCR patterns, 16S rRNA sequence and unique to one of the treatments) were further screened for their plant growth promoting traits (siderophore production, IAA production, exoprotease production and biofilm formation), traits associated with bacterial fitness (antibiotic and abiotic stress resistance - pH, osmotic and oxidative stress, and salinity) and metabolic potential. An overall view of functional diversity (multivariate analysis) indicated that the distributional pattern of bacterial functional traits was driven by soil type. Samples from the late succession (Stage 105 year) showed the most restricted distribution, harboring strains with relatively low functionalities, whereas the isolates from intermediate stage (35 year) showed a broad functional profiles. However, strains with high trait performance were largely from stage 65 year. Grouping the traits according to category revealed that the functionality of plant endophytes did not vary along the succession, thus being driven by plant rather than soil type. In opposition, the functionality of rhizosphere isolates responded strongly to variations in soil type as observed for antibiotic resistance (P = 0.014). Specifically, certain Pseudomonas sp. and Serratia sp. strains revealed high resistance against abiotic stress and antibiotics and produce more siderophores, confirming the high plant-growth promoting activity of these two genera. Overall, this study contributes to a better understanding of the functional diversity and adaptation of the microbiome at typical salt marsh plant species across soil types. Specifically, soil type was influential only in the rhizosphere but not on the endosphere, indicating a strong plant-driven effect on the functionality of endophytes.
Author Address [Wang, Miao; Salles, Joana F.] Univ Groningen, Groningen Inst Evolutionary Life Sci, Genom Res Ecol & Evolut Nat, Res Grp Microbial Community Ecol, Groningen, Netherlands; [Li, Erqin; Liu, Chen] Univ Utrecht, Dept Biol, Plant Microbe Interact, Utrecht, Netherlands; [Jousset, Alexandre] Univ Utrecht, Ecol & Biodivers, Utrecht, Netherlands
Reprint Address Wang, M (reprint author), Univ Groningen, Groningen Inst Evolutionary Life Sci, Genom Res Ecol & Evolut Nat, Res Grp Microbial Community Ecol, Groningen, Netherlands.
E-mail Address m.wang@rug.nl
ResearcherID Number Falcao Salles, Joana/A-7313-2008
Funding Agency and Grant Number China Scholarship Council
Funding Text We thank Han Olff, Matty Berg, Chris Smit, Maarten Schrama, and Ruth Howison for information on sampling locations and plant species. We are grateful to Jolanda K. Brons and Armando Cavalcante Franco Dias for sampling expeditions. We thank the 'Nederlandse Vereniging voor Natuurmonumenten' for granting us access to the salt marsh. This work was supported by China Scholarship Council, on a personal grant to MW.
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Cited Reference Count 121
Publisher City LAUSANNE
ISSN 1664-302X
29-Character Source Abbreviation FRONT MICROBIOL
ISO Source Abbreviation Front. Microbiol.
Publication Date OCT 30
Year Published 2017
Volume 8
Article Number 2102
Digital Object Identifier (DOI) 10.3389/fmicb.2017.02102
Subject Category 17
Document Delivery Number Microbiology
Unique Article Identifier Microbiology
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