Temperature and pH define the realised niche space of arbuscular mycorrhizal fungi

The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the ecological niches of individual AM fungal taxa are poorly understood. We collected > 300 soil samples from natural ecosystems worldwide and modelle...

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Published inThe New phytologist Vol. 231; no. 2; pp. 763 - 776
Main Authors Davison, John, Moora, Mari, Semchenko, Marina, Adenan, Sakeenah Binte, Ahmed, Talaat, Akhmetzhanova, Asem A., Alatalo, Juha M., Al-Quraishy, Saleh, Andriyanova, Elena, Anslan, Sten, Bahram, Mohammad, Batbaatar, Amgaa, Brown, Charlotte, Bueno, C. Guillermo, Cahill, James, Cantero, Juan José, Casper, Brenda B., Cherosov, Mikhail, Chideh, Saida, Coelho, Ana P., Coghill, Matthew, Decocq, Guillaume, Dudov, Sergey, Fabiano, Ezequiel Chimbioputo, Fedosov, Vladimir E., Fraser, Lauchlan, Glassman, Sydney I., Helm, Aveliina, Henry, Hugh A. L., Hérault, Bruno, Hiiesalu, Indrek, Hiiesalu, Inga, Hozzein, Wael N., Kohout, Petr, Kõljalg, Urmas, Koorem, Kadri, Laanisto, Lauri, Mander, Ülo, Mucina, Ladislav, Munyampundu, Jean-Pierre, Neuenkamp, Lena, Niinemets, Ülo, Nyamukondiwa, Casper, Oja, Jane, Onipchenko, Vladimir, Pärtel, Meelis, Phosri, Cherdchai, Põlme, Sergei, Püssa, Kersti, Ronk, Argo, Saitta, Alessandro, Semboli, Olivia, Sepp, Siim Kaarel, Seregin, Alexey, Sudheer, Surya, Peña-Venegas, Clara P., Paz, Claudia, Vahter, Tanel, Vasar, Martti, Veraart, Annelies J., Tedersoo, Leho, Zobel, Martin, Öpik, Maarja
Format Journal Article
LanguageEnglish
Published England Wiley 01.07.2021
Wiley Subscription Services, Inc
Subjects
Abundance
Acaulosporaceae
Agricultural sciences
arbuscular mycorrhizal fungi
Arbuscular mycorrhizas
Biodiversity and Ecology
Botanics
Dispersal
Ecological distribution
Ecological function
ecological niche
Ecological niches
Ecology
Ecology, environment
Ecosystems
Ekologi
Environmental Sciences
Fungi
Gigasporaceae
Glomeraceae
Life Sciences
Low temperature
Microorganisms
molecular taxa
niche optimum
niche width
Niches
pH effects
phylogenetic correlation
Phylogeny
Relative abundance
Soil
Soil study
Taxa
temperature
Vegetal Biology
vesicular arbuscular mycorrhizae
molecular taxa
arbuscular mycorrhizal fungi
niche optimum
niche width
pH
temperature
phylogenetic correlation
ecological niche
Temperature
température du sol
Arbuscular mycorrhizal fungi
Gigasporaceae
Niche width
Acaulosporaceae
Niche optimum
Glomeraceae
champignon du sol
facteurs abiotiques
mycorhize arbusculaire
phytoécologie
pH de la rhizosphère
Ecological niche
Niche écologique
PH
phylogénie
Molecular taxa
Phylogenetic correlation
Online AccessGet full text

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Abstract The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the ecological niches of individual AM fungal taxa are poorly understood. We collected > 300 soil samples from natural ecosystems worldwide and modelled the realised niches of AM fungal virtual taxa (VT; approximately species-level phylogroups). We found that environmental and spatial variables jointly explained VT distribution worldwide, with temperature and pH being the most important abiotic drivers, and spatial effects generally occurring at local to regional scales. While dispersal limitation could explain some variation in VT distribution, VT relative abundance was almost exclusively driven by environmental variables. Several environmental and spatial effects on VT distribution and relative abundance were correlated with phylogeny, indicating that closely related VT exhibit similar niche optima and widths. Major clades within the Glomeraceae exhibited distinct niche optima, Acaulosporaceae generally had niche optima in low pH and low temperature conditions, and Gigasporaceae generally had niche optima in high precipitation conditions. Identification of the realised niche space occupied by individual and phylogenetic groups of soil microbial taxa provides a basis for building detailed hypotheses about how soil communities respond to gradients and manipulation in ecosystems worldwide.
AbstractList The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the ecological niches of individual AM fungal taxa are poorly understood. We collected > 300 soil samples from natural ecosystems worldwide and modelled the realised niches of AM fungal virtual taxa (VT; approximately species‐level phylogroups). We found that environmental and spatial variables jointly explained VT distribution worldwide, with temperature and pH being the most important abiotic drivers, and spatial effects generally occurring at local to regional scales. While dispersal limitation could explain some variation in VT distribution, VT relative abundance was almost exclusively driven by environmental variables. Several environmental and spatial effects on VT distribution and relative abundance were correlated with phylogeny, indicating that closely related VT exhibit similar niche optima and widths. Major clades within the Glomeraceae exhibited distinct niche optima, Acaulosporaceae generally had niche optima in low pH and low temperature conditions, and Gigasporaceae generally had niche optima in high precipitation conditions. Identification of the realised niche space occupied by individual and phylogenetic groups of soil microbial taxa provides a basis for building detailed hypotheses about how soil communities respond to gradients and manipulation in ecosystems worldwide.
The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the ecological niches of individual AM fungal taxa are poorly understood. We collected > 300 soil samples from natural ecosystems worldwide and modelled the realised niches of AM fungal virtual taxa (VT; approximately species-level phylogroups). We found that environmental and spatial variables jointly explained VT distribution worldwide, with temperature and pH being the most important abiotic drivers, and spatial effects generally occurring at local to regional scales. While dispersal limitation could explain some variation in VT distribution, VT relative abundance was almost exclusively driven by environmental variables. Several environmental and spatial effects on VT distribution and relative abundance were correlated with phylogeny, indicating that closely related VT exhibit similar niche optima and widths. Major clades within the Glomeraceae exhibited distinct niche optima, Acaulosporaceae generally had niche optima in low pH and low temperature conditions, and Gigasporaceae generally had niche optima in high precipitation conditions. Identification of the realised niche space occupied by individual and phylogenetic groups of soil microbial taxa provides a basis for building detailed hypotheses about how soil communities respond to gradients and manipulation in ecosystems worldwide.
Summary The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the ecological niches of individual AM fungal taxa are poorly understood. We collected > 300 soil samples from natural ecosystems worldwide and modelled the realised niches of AM fungal virtual taxa (VT; approximately species‐level phylogroups). We found that environmental and spatial variables jointly explained VT distribution worldwide, with temperature and pH being the most important abiotic drivers, and spatial effects generally occurring at local to regional scales. While dispersal limitation could explain some variation in VT distribution, VT relative abundance was almost exclusively driven by environmental variables. Several environmental and spatial effects on VT distribution and relative abundance were correlated with phylogeny, indicating that closely related VT exhibit similar niche optima and widths. Major clades within the Glomeraceae exhibited distinct niche optima, Acaulosporaceae generally had niche optima in low pH and low temperature conditions, and Gigasporaceae generally had niche optima in high precipitation conditions. Identification of the realised niche space occupied by individual and phylogenetic groups of soil microbial taxa provides a basis for building detailed hypotheses about how soil communities respond to gradients and manipulation in ecosystems worldwide. See also the Commentary on this article by Kivlin et al., 231: 508–511.
The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the ecological niches of individual AM fungal taxa are poorly understood. We collected > 300 soil samples from natural ecosystems worldwide and modelled the realised niches of AM fungal virtual taxa (VT; approximately species-level phylogroups). We found that environmental and spatial variables jointly explained VT distribution worldwide, with temperature and pH being the most important abiotic drivers, and spatial effects generally occurring at local to regional scales. While dispersal limitation could explain some variation in VT distribution, VT relative abundance was almost exclusively driven by environmental variables. Several environmental and spatial effects on VT distribution and relative abundance were correlated with phylogeny, indicating that closely related VT exhibit similar niche optima and widths. Major clades within the Glomeraceae exhibited distinct niche optima, Acaulosporaceae generally had niche optima in low pH and low temperature conditions, and Gigasporaceae generally had niche optima in high precipitation conditions. Identification of the realised niche space occupied by individual and phylogenetic groups of soil microbial taxa provides a basis for building detailed hypotheses about how soil communities respond to gradients and manipulation in ecosystems worldwide.
The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the ecological niches of individual AM fungal taxa are poorly understood. We collected > 300 soil samples from natural ecosystems worldwide and modelled the realised niches of AM fungal virtual taxa (VT; approximately species‐level phylogroups). We found that environmental and spatial variables jointly explained VT distribution worldwide, with temperature and pH being the most important abiotic drivers, and spatial effects generally occurring at local to regional scales. While dispersal limitation could explain some variation in VT distribution, VT relative abundance was almost exclusively driven by environmental variables. Several environmental and spatial effects on VT distribution and relative abundance were correlated with phylogeny, indicating that closely related VT exhibit similar niche optima and widths. Major clades within the Glomeraceae exhibited distinct niche optima, Acaulosporaceae generally had niche optima in low pH and low temperature conditions, and Gigasporaceae generally had niche optima in high precipitation conditions. Identification of the realised niche space occupied by individual and phylogenetic groups of soil microbial taxa provides a basis for building detailed hypotheses about how soil communities respond to gradients and manipulation in ecosystems worldwide. See also the Commentary on this article by Kivlin et al. , 231 : 508–511 .
The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the ecological niches of individual AM fungal taxa are poorly understood. We collected > 300 soil samples from natural ecosystems worldwide and modelled the realised niches of AM fungal virtual taxa (VT; approximately species-level phylogroups). We found that environmental and spatial variables jointly explained VT distribution worldwide, with temperature and pH being the most important abiotic drivers, and spatial effects generally occurring at local to regional scales. While dispersal limitation could explain some variation in VT distribution, VT relative abundance was almost exclusively driven by environmental variables. Several environmental and spatial effects on VT distribution and relative abundance were correlated with phylogeny, indicating that closely related VT exhibit similar niche optima and widths. Major clades within the Glomeraceae exhibited distinct niche optima, Acaulosporaceae generally had niche optima in low pH and low temperature conditions, and Gigasporaceae generally had niche optima in high precipitation conditions. Identification of the realised niche space occupied by individual and phylogenetic groups of soil microbial taxa provides a basis for building detailed hypotheses about how soil communities respond to gradients and manipulation in ecosystems worldwide.The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the ecological niches of individual AM fungal taxa are poorly understood. We collected > 300 soil samples from natural ecosystems worldwide and modelled the realised niches of AM fungal virtual taxa (VT; approximately species-level phylogroups). We found that environmental and spatial variables jointly explained VT distribution worldwide, with temperature and pH being the most important abiotic drivers, and spatial effects generally occurring at local to regional scales. While dispersal limitation could explain some variation in VT distribution, VT relative abundance was almost exclusively driven by environmental variables. Several environmental and spatial effects on VT distribution and relative abundance were correlated with phylogeny, indicating that closely related VT exhibit similar niche optima and widths. Major clades within the Glomeraceae exhibited distinct niche optima, Acaulosporaceae generally had niche optima in low pH and low temperature conditions, and Gigasporaceae generally had niche optima in high precipitation conditions. Identification of the realised niche space occupied by individual and phylogenetic groups of soil microbial taxa provides a basis for building detailed hypotheses about how soil communities respond to gradients and manipulation in ecosystems worldwide.
Author Brown, Charlotte
Peña-Venegas, Clara P.
Andriyanova, Elena
Alatalo, Juha M.
Püssa, Kersti
Pärtel, Meelis
Dudov, Sergey
Hozzein, Wael N.
Oja, Jane
Laanisto, Lauri
Glassman, Sydney I.
Batbaatar, Amgaa
Adenan, Sakeenah Binte
Hérault, Bruno
Kõljalg, Urmas
Fedosov, Vladimir E.
Coelho, Ana P.
Semboli, Olivia
Põlme, Sergei
Akhmetzhanova, Asem A.
Paz, Claudia
Coghill, Matthew
Vahter, Tanel
Mucina, Ladislav
Helm, Aveliina
Casper, Brenda B.
Tedersoo, Leho
Al-Quraishy, Saleh
Kohout, Petr
Fabiano, Ezequiel Chimbioputo
Phosri, Cherdchai
Saitta, Alessandro
Seregin, Alexey
Anslan, Sten
Zobel, Martin
Semchenko, Marina
Henry, Hugh A. L.
Davison, John
Vasar, Martti
Decocq, Guillaume
Bahram, Mohammad
Niinemets, Ülo
Koorem, Kadri
Öpik, Maarja
Mander, Ülo
Ronk, Argo
Munyampundu, Jean-Pierre
Fraser, Lauchlan
Cherosov, Mikhail
Ahmed, Talaat
Bueno, C. Guillermo
Hiiesalu, Indrek
Neuenkamp, Lena
Onipchenko, Vladimir
Sepp, Siim Kaarel
Veraart, Annelies J.
Hiiesalu, Inga
Sudheer, Surya
Moora, Mari
Chideh, Saida
Cantero, Juan José
Cahill, James
Nyamukondiwa, Casper
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https://res.slu.se/id/publ/111234$$DView record from Swedish Publication Index
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Issue 2
Keywords molecular taxa
arbuscular mycorrhizal fungi
niche optimum
niche width
pH
temperature
phylogenetic correlation
ecological niche
Temperature
température du sol
Arbuscular mycorrhizal fungi
Gigasporaceae
Niche width
Acaulosporaceae
Niche optimum
Glomeraceae
champignon du sol
facteurs abiotiques
mycorhize arbusculaire
phytoécologie
pH de la rhizosphère
Ecological niche
Niche écologique
PH
phylogénie
Molecular taxa
Phylogenetic correlation
Language English
License 2021 The Authors New Phytologist © 2021 New Phytologist Foundation.
Copyright: http://hal.archives-ouvertes.fr/licences/copyright
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Notes 231
These authors contributed equally to this work.
508–511
Kivlin
,
See also the Commentary on this article by
et al.
.
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Snippet The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the...
Summary The arbuscular mycorrhizal (AM) fungi are a globally distributed group of soil organisms that play critical roles in ecosystem function. However, the...
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SubjectTerms Abundance
Acaulosporaceae
Agricultural sciences
arbuscular mycorrhizal fungi
Arbuscular mycorrhizas
Biodiversity and Ecology
Botanics
Dispersal
Ecological distribution
Ecological function
ecological niche
Ecological niches
Ecology
Ecology, environment
Ecosystems
Ekologi
Environmental Sciences
Fungi
Gigasporaceae
Glomeraceae
Life Sciences
Low temperature
Microorganisms
molecular taxa
niche optimum
niche width
Niches
pH effects
phylogenetic correlation
Phylogeny
Relative abundance
Soil
Soil study
Taxa
temperature
Vegetal Biology
vesicular arbuscular mycorrhizae
Title Temperature and pH define the realised niche space of arbuscular mycorrhizal fungi
URI https://www.jstor.org/stable/27050127
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.17240
https://www.ncbi.nlm.nih.gov/pubmed/33507570
https://www.proquest.com/docview/2540697831
https://www.proquest.com/docview/2482674480
https://www.proquest.com/docview/2636434732
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https://res.slu.se/id/publ/111234
Volume 231
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