Temperate tree microbiomes : divergent soil and phyllosphere microbial communities share few but dominant taxa

Aims: The phyllosphere and soil are crucial and distinct microbial spheres in forests, connected through trees that interact with both. As part of the tree's holobiont, these communities are vital to the fitness and evolution of the host. Differences between the spheres may be particularly evident at the two extreme ends of tall and long-lived trees of natural temperate forest; the top-canopy and the soil. Here, we evaluated the connectivity between the top-canopy and soil microbial communities of European beech and Norway spruce trees to determine the significance of tree-sphere and host-species identity, and to assess the contribution of taxa inhabiting both spheres. Methods: Bacterial and fungal community composition was determined through metabarcoding analysis of linked top-canopy leaf and bulk soil samples collected from tall (old) trees in the natural forest of Bavarian Forest National Park. Results: This study shows sphere-specific communities in European temperate forests, characterized by low connectivity. Results highlight that spheres exert stronger influence than host identity. Only a few taxa inhabited both spheres, yet they accounted for the bulk of the (relative) abundance in each sphere. Conclusion: Analysing the divergence and shared characteristics of these interlinked communities redefines the tree holobiont concept and enhances our understanding of the evolution of plant-associated microbial communities in a sphere-specific manner. This study emphasizes the importance of examining multiple microbiome components for a thorough understanding of temperate forest ecology, while also highlighting the existence of a small group of overlapping taxa that may play a bigger role than previously anticipated.

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Bibliographic Details
Main Authors: Siegenthaler, Andjin, Skidmore, Andrew K., de Groot, Arjen, Laros, Ivo, Rousseau, Mélody, Duan, Yiwei
Format: Article/Letter to editor biblioteca
Language:English
Subjects:16S rRNA gene, Bulk soil, ITS rRNA region, Phyllosphere, Temperate forest microbiome, eDNA,
Online Access:https://research.wur.nl/en/publications/temperate-tree-microbiomes-divergent-soil-and-phyllosphere-microb
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spelling dig-wur-nl-wurpubs-6211722024-10-02 Siegenthaler, Andjin Skidmore, Andrew K. de Groot, Arjen Laros, Ivo Rousseau, Mélody Duan, Yiwei Article/Letter to editor Plant and Soil 496 (2024) 1-2 ISSN: 0032-079X Temperate tree microbiomes : divergent soil and phyllosphere microbial communities share few but dominant taxa 2024 Aims: The phyllosphere and soil are crucial and distinct microbial spheres in forests, connected through trees that interact with both. As part of the tree's holobiont, these communities are vital to the fitness and evolution of the host. Differences between the spheres may be particularly evident at the two extreme ends of tall and long-lived trees of natural temperate forest; the top-canopy and the soil. Here, we evaluated the connectivity between the top-canopy and soil microbial communities of European beech and Norway spruce trees to determine the significance of tree-sphere and host-species identity, and to assess the contribution of taxa inhabiting both spheres. Methods: Bacterial and fungal community composition was determined through metabarcoding analysis of linked top-canopy leaf and bulk soil samples collected from tall (old) trees in the natural forest of Bavarian Forest National Park. Results: This study shows sphere-specific communities in European temperate forests, characterized by low connectivity. Results highlight that spheres exert stronger influence than host identity. Only a few taxa inhabited both spheres, yet they accounted for the bulk of the (relative) abundance in each sphere. Conclusion: Analysing the divergence and shared characteristics of these interlinked communities redefines the tree holobiont concept and enhances our understanding of the evolution of plant-associated microbial communities in a sphere-specific manner. This study emphasizes the importance of examining multiple microbiome components for a thorough understanding of temperate forest ecology, while also highlighting the existence of a small group of overlapping taxa that may play a bigger role than previously anticipated. en application/pdf https://research.wur.nl/en/publications/temperate-tree-microbiomes-divergent-soil-and-phyllosphere-microb 10.1007/s11104-023-06364-1 https://edepot.wur.nl/642011 16S rRNA gene Bulk soil ITS rRNA region Phyllosphere Temperate forest microbiome eDNA https://creativecommons.org/licenses/by/4.0/ https://creativecommons.org/licenses/by/4.0/ Wageningen University & Research
institution WUR NL
collection DSpace
country Países bajos
countrycode NL
component Bibliográfico
access En linea
databasecode dig-wur-nl
tag biblioteca
region Europa del Oeste
libraryname WUR Library Netherlands
language English
topic 16S rRNA gene
Bulk soil
ITS rRNA region
Phyllosphere
Temperate forest microbiome
eDNA
16S rRNA gene
Bulk soil
ITS rRNA region
Phyllosphere
Temperate forest microbiome
eDNA
spellingShingle 16S rRNA gene
Bulk soil
ITS rRNA region
Phyllosphere
Temperate forest microbiome
eDNA
16S rRNA gene
Bulk soil
ITS rRNA region
Phyllosphere
Temperate forest microbiome
eDNA
Siegenthaler, Andjin
Skidmore, Andrew K.
de Groot, Arjen
Laros, Ivo
Rousseau, Mélody
Duan, Yiwei
Temperate tree microbiomes : divergent soil and phyllosphere microbial communities share few but dominant taxa
description Aims: The phyllosphere and soil are crucial and distinct microbial spheres in forests, connected through trees that interact with both. As part of the tree's holobiont, these communities are vital to the fitness and evolution of the host. Differences between the spheres may be particularly evident at the two extreme ends of tall and long-lived trees of natural temperate forest; the top-canopy and the soil. Here, we evaluated the connectivity between the top-canopy and soil microbial communities of European beech and Norway spruce trees to determine the significance of tree-sphere and host-species identity, and to assess the contribution of taxa inhabiting both spheres. Methods: Bacterial and fungal community composition was determined through metabarcoding analysis of linked top-canopy leaf and bulk soil samples collected from tall (old) trees in the natural forest of Bavarian Forest National Park. Results: This study shows sphere-specific communities in European temperate forests, characterized by low connectivity. Results highlight that spheres exert stronger influence than host identity. Only a few taxa inhabited both spheres, yet they accounted for the bulk of the (relative) abundance in each sphere. Conclusion: Analysing the divergence and shared characteristics of these interlinked communities redefines the tree holobiont concept and enhances our understanding of the evolution of plant-associated microbial communities in a sphere-specific manner. This study emphasizes the importance of examining multiple microbiome components for a thorough understanding of temperate forest ecology, while also highlighting the existence of a small group of overlapping taxa that may play a bigger role than previously anticipated.
format Article/Letter to editor
topic_facet 16S rRNA gene
Bulk soil
ITS rRNA region
Phyllosphere
Temperate forest microbiome
eDNA
author Siegenthaler, Andjin
Skidmore, Andrew K.
de Groot, Arjen
Laros, Ivo
Rousseau, Mélody
Duan, Yiwei
author_facet Siegenthaler, Andjin
Skidmore, Andrew K.
de Groot, Arjen
Laros, Ivo
Rousseau, Mélody
Duan, Yiwei
author_sort Siegenthaler, Andjin
title Temperate tree microbiomes : divergent soil and phyllosphere microbial communities share few but dominant taxa
title_short Temperate tree microbiomes : divergent soil and phyllosphere microbial communities share few but dominant taxa
title_full Temperate tree microbiomes : divergent soil and phyllosphere microbial communities share few but dominant taxa
title_fullStr Temperate tree microbiomes : divergent soil and phyllosphere microbial communities share few but dominant taxa
title_full_unstemmed Temperate tree microbiomes : divergent soil and phyllosphere microbial communities share few but dominant taxa
title_sort temperate tree microbiomes : divergent soil and phyllosphere microbial communities share few but dominant taxa
url https://research.wur.nl/en/publications/temperate-tree-microbiomes-divergent-soil-and-phyllosphere-microb
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