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Linking soil microbial communities to vascular plant abundance along a climate gradient
by
Buttler, Alexandre
, Bragazza, Luca
, Bardgett, Richard D
, Mitchell, Edward A. D
in
Abundance
/ Altitude
/ bacteria
/ Bacteria - enzymology
/ Bacteria - metabolism
/ Biogeochemistry
/ Biomass
/ bogs
/ Carbon
/ Carbon - analysis
/ Carbon sinks
/ Climate
/ Climate change
/ Community structure
/ ecosystems
/ Environmental changes
/ Enzymatic activity
/ Enzyme activity
/ enzymes
/ ericoids
/ Extracellular
/ Fungi
/ Fungi - enzymology
/ Fungi - metabolism
/ Life Sciences
/ Microbial activity
/ Microbial biomass
/ microbial communities
/ Microbiomes
/ Microorganisms
/ Moisture content
/ nitrogen
/ Nitrogen - analysis
/ Organic matter
/ Oxygenation
/ Peat
/ Peat soils
/ Peatlands
/ phospholipid fatty acid (PLFA)
/ Phosphorus - analysis
/ Plant biomass
/ Plant communities
/ Plant Vascular Bundle - growth & development
/ Plant Vascular Bundle - microbiology
/ Plants
/ shrubs
/ Soil
/ Soil bacteria
/ Soil biology
/ Soil ecology
/ Soil improvement
/ Soil Microbiology
/ Soil microorganisms
/ Soil structure
/ Soil temperature
/ Soils
/ Stoichiometry
/ Structure-function relationships
/ Vegetation changes
/ Water content
2015
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Linking soil microbial communities to vascular plant abundance along a climate gradient
by
Buttler, Alexandre
, Bragazza, Luca
, Bardgett, Richard D
, Mitchell, Edward A. D
in
Abundance
/ Altitude
/ bacteria
/ Bacteria - enzymology
/ Bacteria - metabolism
/ Biogeochemistry
/ Biomass
/ bogs
/ Carbon
/ Carbon - analysis
/ Carbon sinks
/ Climate
/ Climate change
/ Community structure
/ ecosystems
/ Environmental changes
/ Enzymatic activity
/ Enzyme activity
/ enzymes
/ ericoids
/ Extracellular
/ Fungi
/ Fungi - enzymology
/ Fungi - metabolism
/ Life Sciences
/ Microbial activity
/ Microbial biomass
/ microbial communities
/ Microbiomes
/ Microorganisms
/ Moisture content
/ nitrogen
/ Nitrogen - analysis
/ Organic matter
/ Oxygenation
/ Peat
/ Peat soils
/ Peatlands
/ phospholipid fatty acid (PLFA)
/ Phosphorus - analysis
/ Plant biomass
/ Plant communities
/ Plant Vascular Bundle - growth & development
/ Plant Vascular Bundle - microbiology
/ Plants
/ shrubs
/ Soil
/ Soil bacteria
/ Soil biology
/ Soil ecology
/ Soil improvement
/ Soil Microbiology
/ Soil microorganisms
/ Soil structure
/ Soil temperature
/ Soils
/ Stoichiometry
/ Structure-function relationships
/ Vegetation changes
/ Water content
2015
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Linking soil microbial communities to vascular plant abundance along a climate gradient
by
Buttler, Alexandre
, Bragazza, Luca
, Bardgett, Richard D
, Mitchell, Edward A. D
in
Abundance
/ Altitude
/ bacteria
/ Bacteria - enzymology
/ Bacteria - metabolism
/ Biogeochemistry
/ Biomass
/ bogs
/ Carbon
/ Carbon - analysis
/ Carbon sinks
/ Climate
/ Climate change
/ Community structure
/ ecosystems
/ Environmental changes
/ Enzymatic activity
/ Enzyme activity
/ enzymes
/ ericoids
/ Extracellular
/ Fungi
/ Fungi - enzymology
/ Fungi - metabolism
/ Life Sciences
/ Microbial activity
/ Microbial biomass
/ microbial communities
/ Microbiomes
/ Microorganisms
/ Moisture content
/ nitrogen
/ Nitrogen - analysis
/ Organic matter
/ Oxygenation
/ Peat
/ Peat soils
/ Peatlands
/ phospholipid fatty acid (PLFA)
/ Phosphorus - analysis
/ Plant biomass
/ Plant communities
/ Plant Vascular Bundle - growth & development
/ Plant Vascular Bundle - microbiology
/ Plants
/ shrubs
/ Soil
/ Soil bacteria
/ Soil biology
/ Soil ecology
/ Soil improvement
/ Soil Microbiology
/ Soil microorganisms
/ Soil structure
/ Soil temperature
/ Soils
/ Stoichiometry
/ Structure-function relationships
/ Vegetation changes
/ Water content
2015
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Linking soil microbial communities to vascular plant abundance along a climate gradient
Journal Article
Linking soil microbial communities to vascular plant abundance along a climate gradient
2015
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Overview
The ongoing expansion of shrub cover in response to climate change represents a unique opportunity to explore the link between soil microbial communities and vegetation changes. This link is particularly important in peatlands where shrub expansion is expected to feed back negatively on the carbon sink capacity of these ecosystems. Microbial community structure and function were measured seasonally in four peatlands located along an altitude gradient representing a natural gradient of climate and associated vascular plant abundance. We show that increased soil temperature and reduced water content are associated with greater vascular plant biomass, in particular that of ericoids, and that this, in turn, is correlated with greater microbial biomass. More specifically, microbial community structure is characterized by an increasing dominance of fungi over bacteria with improved soil oxygenation. We also found that the carbon and nitrogen stoichiometry of microbial biomass differs in relation to soil microbial community structure and that this is ultimately associated with a different investment in extracellular enzymatic activity. Our findings highlight the fact that the determination of the structural identity of microbial communities can help to explain the biogeochemical dynamics of organic matter and provide a better understanding of ecosystem response to environmental changes.
Publisher
Academic Press,New Phytologist Trust,Wiley Subscription Services, Inc,Wiley
Subject
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