Dynamics of arbuscular mycorrhizal fungal community structure and functioning along a nitrogen enrichment gradient in an alpine meadow ecosystem

Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal (AM) fungi in natural ecosystems is not well understood. We measured AM fungal community structure and mycorrhizal function simultaneously across an e...

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Published inThe New phytologist Vol. 220; no. 4; pp. 1222 - 1235
Main Authors Jiang, Shengjing, Liu, Yongjun, Luo, Jiajia, Qin, Mingsen, Johnson, Nancy Collins, Öpik, Maarja, Vasar, Martti, Chai, Yuxing, Zhou, Xiaolong, Mao, Lin, Du, Guozhen, An, Lizhe, Feng, Huyuan
Format Journal Article
LanguageEnglish
Published England New Phytologist Trust 01.12.2018
Wiley Subscription Services, Inc
Subjects
Abundance
alpine meadow ecosystem
alpine meadows
Arbuscular mycorrhizas
Availability
Community composition
Community structure
Composition
Dynamics
Ecosystems
Elymus nutans
Enrichment
fertilization
fungal communities
fungal community
Fungi
greenhouses
growth response
Herbivores
Inoculation
Meadows
mycorrhiza
mycorrhizal fungi
Nitrogen
nitrogen deposition
Nitrogen enrichment
Parasitism
Phosphorus
Plant communities
Plant species
plant–microbe interaction
Roots
Soil
Species richness
Structure-function relationships
Sustainability
Sustainable ecosystems
Tibetan Plateau
vesicular arbuscular mycorrhizae
Tibetan Plateau
growth response
fertilization
fungal community
mycorrhiza
alpine meadow ecosystem
nitrogen deposition
plant-microbe interaction
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Abstract Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal (AM) fungi in natural ecosystems is not well understood. We measured AM fungal community structure and mycorrhizal function simultaneously across an experimental N addition gradient in an alpine meadow that is limited by N but not by phosphorus (P). AM fungal communities at both whole-plant-community (mixed roots) and single-plant-species (Elymus nutans roots) scales were described using pyro-sequencing, and the mycorrhizal functioning was quantified using a mycorrhizal-suppression treatment in the field (whole-plant-community scale) and a glasshouse inoculation experiment (single-plant-species scale). Nitrogen enrichment progressively reduced AM fungal abundance, changed AM fungal community composition, and shifted mycorrhizal functioning towards parasitism at both whole-plant-community and E. nutans scales. N-induced shifts in AM fungal community composition were tightly linked to soil N availability and/or plant species richness, whereas the shifts in mycorrhizal function were associated with the communities of specific AM fungal lineages. The observed changes in both AM fungal community structure and functioning across an N enrichment gradient highlight that N enrichment of ecosystems that are not P-limited can induce parasitic mycorrhizal functioning and influence plant community structure and ecosystem sustainability.
AbstractList Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal (AM) fungi in natural ecosystems is not well understood. We measured AM fungal community structure and mycorrhizal function simultaneously across an experimental N addition gradient in an alpine meadow that is limited by N but not by phosphorus (P). AM fungal communities at both whole-plant-community (mixed roots) and single-plant-species (Elymus nutans roots) scales were described using pyro-sequencing, and the mycorrhizal functioning was quantified using a mycorrhizal-suppression treatment in the field (whole-plant-community scale) and a glasshouse inoculation experiment (single-plant-species scale). Nitrogen enrichment progressively reduced AM fungal abundance, changed AM fungal community composition, and shifted mycorrhizal functioning towards parasitism at both whole-plant-community and E. nutans scales. N-induced shifts in AM fungal community composition were tightly linked to soil N availability and/or plant species richness, whereas the shifts in mycorrhizal function were associated with the communities of specific AM fungal lineages. The observed changes in both AM fungal community structure and functioning across an N enrichment gradient highlight that N enrichment of ecosystems that are not P-limited can induce parasitic mycorrhizal functioning and influence plant community structure and ecosystem sustainability.Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal (AM) fungi in natural ecosystems is not well understood. We measured AM fungal community structure and mycorrhizal function simultaneously across an experimental N addition gradient in an alpine meadow that is limited by N but not by phosphorus (P). AM fungal communities at both whole-plant-community (mixed roots) and single-plant-species (Elymus nutans roots) scales were described using pyro-sequencing, and the mycorrhizal functioning was quantified using a mycorrhizal-suppression treatment in the field (whole-plant-community scale) and a glasshouse inoculation experiment (single-plant-species scale). Nitrogen enrichment progressively reduced AM fungal abundance, changed AM fungal community composition, and shifted mycorrhizal functioning towards parasitism at both whole-plant-community and E. nutans scales. N-induced shifts in AM fungal community composition were tightly linked to soil N availability and/or plant species richness, whereas the shifts in mycorrhizal function were associated with the communities of specific AM fungal lineages. The observed changes in both AM fungal community structure and functioning across an N enrichment gradient highlight that N enrichment of ecosystems that are not P-limited can induce parasitic mycorrhizal functioning and influence plant community structure and ecosystem sustainability.
Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal (AM) fungi in natural ecosystems is not well understood.We measured AM fungal community structure and mycorrhizal function simultaneously across an experimental N addition gradient in an alpine meadow that is limited by N but not by phosphorus (P). AM fungal communities at both whole‐plant‐community (mixed roots) and single‐plant‐species (Elymus nutans roots) scales were described using pyro‐sequencing, and the mycorrhizal functioning was quantified using a mycorrhizal‐suppression treatment in the field (whole‐plant‐community scale) and a glasshouse inoculation experiment (single‐plant‐species scale).Nitrogen enrichment progressively reduced AM fungal abundance, changed AM fungal community composition, and shifted mycorrhizal functioning towards parasitism at both whole‐plant‐community and E. nutans scales. N‐induced shifts in AM fungal community composition were tightly linked to soil N availability and/or plant species richness, whereas the shifts in mycorrhizal function were associated with the communities of specific AM fungal lineages.The observed changes in both AM fungal community structure and functioning across an N enrichment gradient highlight that N enrichment of ecosystems that are not P‐limited can induce parasitic mycorrhizal functioning and influence plant community structure and ecosystem sustainability.
Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal (AM) fungi in natural ecosystems is not well understood. We measured AM fungal community structure and mycorrhizal function simultaneously across an experimental N addition gradient in an alpine meadow that is limited by N but not by phosphorus (P). AM fungal communities at both whole-plant-community (mixed roots) and single-plant-species (Elymus nutans roots) scales were described using pyro-sequencing, and the mycorrhizal functioning was quantified using a mycorrhizal-suppression treatment in the field (whole-plant-community scale) and a glasshouse inoculation experiment (single-plant-species scale). Nitrogen enrichment progressively reduced AM fungal abundance, changed AM fungal community composition, and shifted mycorrhizal functioning towards parasitism at both whole-plant-community and E. nutans scales. N-induced shifts in AM fungal community composition were tightly linked to soil N availability and/or plant species richness, whereas the shifts in mycorrhizal function were associated with the communities of specific AM fungal lineages. The observed changes in both AM fungal community structure and functioning across an N enrichment gradient highlight that N enrichment of ecosystems that are not P-limited can induce parasitic mycorrhizal functioning and influence plant community structure and ecosystem sustainability.
Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal (AM) fungi in natural ecosystems is not well understood. We measured AM fungal community structure and mycorrhizal function simultaneously across an experimental N addition gradient in an alpine meadow that is limited by N but not by phosphorus (P). AM fungal communities at both whole-plant-community (mixed roots) and single-plant-species (Elymus nutans roots) scales were described using pyro-sequencing, and the mycorrhizal functioning was quantified using a mycorrhizal-suppression treatment in the field (whole-plant-community scale) and a glasshouse inoculation experiment (single-plant-species scale). Nitrogen enrichment progressively reduced AM fungal abundance, changed AM fungal community composition, and shifted mycorrhizal functioning towards parasitism at both whole-plant-community and E. nutans scales. N-induced shifts in AM fungal community composition were tightly linked to soil N availability and/or plant species richness, whereas the shifts in mycorrhizal function were associated with the communities of specific AM fungal lineages. The observed changes in both AM fungal community structure and functioning across an N enrichment gradient highlight that N enrichment of ecosystems that are not P-limited can induce parasitic mycorrhizal functioning and influence plant community structure and ecosystem sustainability.
Summary Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal (AM) fungi in natural ecosystems is not well understood. We measured AM fungal community structure and mycorrhizal function simultaneously across an experimental N addition gradient in an alpine meadow that is limited by N but not by phosphorus (P). AM fungal communities at both whole‐plant‐community (mixed roots) and single‐plant‐species (Elymus nutans roots) scales were described using pyro‐sequencing, and the mycorrhizal functioning was quantified using a mycorrhizal‐suppression treatment in the field (whole‐plant‐community scale) and a glasshouse inoculation experiment (single‐plant‐species scale). Nitrogen enrichment progressively reduced AM fungal abundance, changed AM fungal community composition, and shifted mycorrhizal functioning towards parasitism at both whole‐plant‐community and E. nutans scales. N‐induced shifts in AM fungal community composition were tightly linked to soil N availability and/or plant species richness, whereas the shifts in mycorrhizal function were associated with the communities of specific AM fungal lineages. The observed changes in both AM fungal community structure and functioning across an N enrichment gradient highlight that N enrichment of ecosystems that are not P‐limited can induce parasitic mycorrhizal functioning and influence plant community structure and ecosystem sustainability.
Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal ( AM ) fungi in natural ecosystems is not well understood. We measured AM fungal community structure and mycorrhizal function simultaneously across an experimental N addition gradient in an alpine meadow that is limited by N but not by phosphorus (P). AM fungal communities at both whole‐plant‐community (mixed roots) and single‐plant‐species ( Elymus nutans roots) scales were described using pyro‐sequencing, and the mycorrhizal functioning was quantified using a mycorrhizal‐suppression treatment in the field (whole‐plant‐community scale) and a glasshouse inoculation experiment (single‐plant‐species scale). Nitrogen enrichment progressively reduced AM fungal abundance, changed AM fungal community composition, and shifted mycorrhizal functioning towards parasitism at both whole‐plant‐community and E. nutans scales. N‐induced shifts in AM fungal community composition were tightly linked to soil N availability and/or plant species richness, whereas the shifts in mycorrhizal function were associated with the communities of specific AM fungal lineages. The observed changes in both AM fungal community structure and functioning across an N enrichment gradient highlight that N enrichment of ecosystems that are not P‐limited can induce parasitic mycorrhizal functioning and influence plant community structure and ecosystem sustainability.
Author Jiajia Luo
Guozhen Du
Lin Mao
Martti Vasar
Lizhe An
Mingsen Qin
Maarja Öpik
Yuxing Chai
Shengjing Jiang
Yongjun Liu
Huyuan Feng
Nancy Collins Johnson
Xiaolong Zhou
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  surname: Jiang
  fullname: Jiang, Shengjing
  organization: Lanzhou University
– sequence: 2
  givenname: Yongjun
  orcidid: 0000-0002-2909-1730
  surname: Liu
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  email: yjliu@lzu.edu.cn
  organization: Lanzhou University
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  fullname: Luo, Jiajia
  organization: Lanzhou University
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  organization: Lanzhou University
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  givenname: Nancy Collins
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  organization: Northern Arizona University
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  surname: Chai
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  organization: Lanzhou University
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  fullname: Zhou, Xiaolong
  organization: Lanzhou University
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  surname: Mao
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  organization: Lanzhou University
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BackLink https://www.ncbi.nlm.nih.gov/pubmed/29600518$$D View this record in MEDLINE/PubMed
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ContentType Journal Article
Copyright 2018 New Phytologist Trust
2018 The Authors. New Phytologist © 2018 New Phytologist Trust
2018 The Authors. New Phytologist © 2018 New Phytologist Trust.
Copyright © 2018 New Phytologist Trust
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– notice: 2018 The Authors. New Phytologist © 2018 New Phytologist Trust
– notice: 2018 The Authors. New Phytologist © 2018 New Phytologist Trust.
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Issue 4
Keywords Tibetan Plateau
growth response
fertilization
fungal community
mycorrhiza
alpine meadow ecosystem
nitrogen deposition
plant-microbe interaction
Language English
License 2018 The Authors. New Phytologist © 2018 New Phytologist Trust.
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Snippet Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal (AM)...
Summary Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal...
Nitrogen (N) availability is increasing dramatically in many ecosystems, but the influence of elevated N on the functioning of arbuscular mycorrhizal ( AM )...
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SubjectTerms Abundance
alpine meadow ecosystem
alpine meadows
Arbuscular mycorrhizas
Availability
Community composition
Community structure
Composition
Dynamics
Ecosystems
Elymus nutans
Enrichment
fertilization
fungal communities
fungal community
Fungi
greenhouses
growth response
Herbivores
Inoculation
Meadows
mycorrhiza
mycorrhizal fungi
Nitrogen
nitrogen deposition
Nitrogen enrichment
Parasitism
Phosphorus
Plant communities
Plant species
plant–microbe interaction
Roots
Soil
Species richness
Structure-function relationships
Sustainability
Sustainable ecosystems
Tibetan Plateau
vesicular arbuscular mycorrhizae
Title Dynamics of arbuscular mycorrhizal fungal community structure and functioning along a nitrogen enrichment gradient in an alpine meadow ecosystem
URI https://www.jstor.org/stable/90026186
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.15112
https://www.ncbi.nlm.nih.gov/pubmed/29600518
https://www.proquest.com/docview/2130887378
https://www.proquest.com/docview/2020486798
https://www.proquest.com/docview/2189526841
Volume 220
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