Contrasting mycorrhizal functionality in abiotic stress tolerance of woody species

Abstract Current understanding of how woody plants respond to abiotic stress and how mycorrhizal interactions mitigate this stress is limited, as research has mostly focused on single stress factors. The diverse range of woody plants and mycorrhizal fungi, and the varying intensity and composition o...

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Main Authors: Lauri Laanisto, Nicola Pavanetto, Giacomo Puglielli, Maret Gerz, C. Guillermo Bueno
Format: Article
Language:English
Published: Nature Portfolio 2025-03-01
Series:Scientific Reports
Online Access:https://doi.org/10.1038/s41598-025-93787-8
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author Lauri Laanisto
Nicola Pavanetto
Giacomo Puglielli
Maret Gerz
C. Guillermo Bueno
author_facet Lauri Laanisto
Nicola Pavanetto
Giacomo Puglielli
Maret Gerz
C. Guillermo Bueno
author_sort Lauri Laanisto
collection DOAJ
description Abstract Current understanding of how woody plants respond to abiotic stress and how mycorrhizal interactions mitigate this stress is limited, as research has mostly focused on single stress factors. The diverse range of woody plants and mycorrhizal fungi, and the varying intensity and composition of multiple stress factors in different regions worldwide, have made it difficult to study these highly functional symbiotic interactions from a global perspective. Here, we used a top-down approach that involved partitioning known interactions into functional types, and mapping stress tolerances and interactions into overlapping heatmaps. We used a comprehensive dataset of 621 woody species’ tolerance of shade, drought, waterlogging, and cold stress, as well as their mycorrhizal interaction data, to test how stress polytolerance correlates with different functional types of mycorrhiza. We show that single mycorrhizal type associates with shade tolerance, while dual type with cold and waterlogging tolerance. Both arbuscular mycorrhiza and obligate interactions are more abundant in drought stress tolerance conditions, while ectomycorrhiza and facultative interactions are found in more cold and waterlogged stressful conditions. Thus, functionally distinct mycorrhizal interactions form significantly contrasting stress mitigation patterns with woody species, providing insights into both evolutionary and biogeographic patterns related to the development of plant-mycorrhiza interactions.
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spelling doaj-art-04b8abf9aae6463e8986e76776a8afb22025-08-20T02:49:32ZengNature PortfolioScientific Reports2045-23222025-03-011511910.1038/s41598-025-93787-8Contrasting mycorrhizal functionality in abiotic stress tolerance of woody speciesLauri Laanisto0Nicola Pavanetto1Giacomo Puglielli2Maret Gerz3C. Guillermo Bueno4Chair of Biodiversity and Nature Tourism, Institute of Agricultural and Environmental Sciences, Estonian University of Life SciencesChair of Biodiversity and Nature Tourism, Institute of Agricultural and Environmental Sciences, Estonian University of Life SciencesDepartamento de Biología Vegetal y Ecología, Facultad de Biología, Universidad de SevillaDepartment of Botany, Institute of Ecology and Earth Sciences, University of TartuInstituto Pirenaico de Ecología, CSIC (Spanish Research Council)Abstract Current understanding of how woody plants respond to abiotic stress and how mycorrhizal interactions mitigate this stress is limited, as research has mostly focused on single stress factors. The diverse range of woody plants and mycorrhizal fungi, and the varying intensity and composition of multiple stress factors in different regions worldwide, have made it difficult to study these highly functional symbiotic interactions from a global perspective. Here, we used a top-down approach that involved partitioning known interactions into functional types, and mapping stress tolerances and interactions into overlapping heatmaps. We used a comprehensive dataset of 621 woody species’ tolerance of shade, drought, waterlogging, and cold stress, as well as their mycorrhizal interaction data, to test how stress polytolerance correlates with different functional types of mycorrhiza. We show that single mycorrhizal type associates with shade tolerance, while dual type with cold and waterlogging tolerance. Both arbuscular mycorrhiza and obligate interactions are more abundant in drought stress tolerance conditions, while ectomycorrhiza and facultative interactions are found in more cold and waterlogged stressful conditions. Thus, functionally distinct mycorrhizal interactions form significantly contrasting stress mitigation patterns with woody species, providing insights into both evolutionary and biogeographic patterns related to the development of plant-mycorrhiza interactions.https://doi.org/10.1038/s41598-025-93787-8
spellingShingle Lauri Laanisto
Nicola Pavanetto
Giacomo Puglielli
Maret Gerz
C. Guillermo Bueno
Contrasting mycorrhizal functionality in abiotic stress tolerance of woody species
Scientific Reports
title Contrasting mycorrhizal functionality in abiotic stress tolerance of woody species
title_full Contrasting mycorrhizal functionality in abiotic stress tolerance of woody species
title_fullStr Contrasting mycorrhizal functionality in abiotic stress tolerance of woody species
title_full_unstemmed Contrasting mycorrhizal functionality in abiotic stress tolerance of woody species
title_short Contrasting mycorrhizal functionality in abiotic stress tolerance of woody species
title_sort contrasting mycorrhizal functionality in abiotic stress tolerance of woody species
url https://doi.org/10.1038/s41598-025-93787-8
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AT maretgerz contrastingmycorrhizalfunctionalityinabioticstresstoleranceofwoodyspecies
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