Molybdenum and phosphorus limitation of moss-associated nitrogen fixation in boreal ecosystems

Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high-latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the avai...

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Published inThe New phytologist Vol. 214; no. 1; pp. 97 - 107
Main Authors Rousk, Kathrin, Degboe, Jefferson, Michelsen, Anders, Bradley, Robert, Bellenger, Jean‐Philippe
Format Journal Article
LanguageEnglish
Published England New Phytologist Trust 01.04.2017
Wiley Subscription Services, Inc
Subjects
Acetylene - metabolism
Acetylene reduction
biological nitrogen fixation
Biomass
Boreal forests
Bryophyta - physiology
Cyanobacteria
Cyanobacteria - drug effects
Cyanobacteria - metabolism
Ecological function
Ecosystem
Ecosystems
field experimentation
Field tests
Growing season
Hylocomium splendens
latitude
Molybdenum
molybdenum (Mo)
Molybdenum - pharmacology
Mosses
mosses and liverworts
nitrogen
Nitrogen fixation
Nitrogen Fixation - drug effects
Nitrogen Isotopes
nitrogenase
nutrients
phosphorus
phosphorus (P)
Phosphorus - pharmacology
Picea
Pleurozium schreberi
stable isotopes
subarctic tundra
Tracer techniques
Tundra
boreal forests
cyanobacteria
subarctic tundra
biological nitrogen fixation
molybdenum (Mo)
Hylocomium splendens
Pleurozium schreberi
phosphorus (P)
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Abstract Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high-latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the availability of molybdenum (Mo), phosphorus (P), or both. BNF in dominant mosses was measured with the acetylene reduction assay (ARA) at different time intervals following Mo and P additions, in both laboratory microcosms with mosses from a boreal spruce forest and field plots in subarctic tundra. We further used a 15N2 tracer technique to assess the ARA to N2 fixation conversion ratios at our subarctic site. BNF was up to four-fold higher shortly after the addition of Mo, in both the laboratory and field experiments. A similar positive response to Mo was found in moss colonizing cyanobacterial biomass. As the growing season progressed, nitrogenase activity became progressively more P limited. The ARA: 15N2 ratios increased with increasing Mo additions. These findings show that N2 fixation activity as well as cyanobacterial biomass in dominant feather mosses from boreal forests and subarctic tundra are limited by Mo availability.
AbstractList Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high-latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the availability of molybdenum (Mo), phosphorus (P), or both. BNF in dominant mosses was measured with the acetylene reduction assay (ARA) at different time intervals following Mo and P additions, in both laboratory microcosms with mosses from a boreal spruce forest and field plots in subarctic tundra. We further used a 15 N2 tracer technique to assess the ARA to N2 fixation conversion ratios at our subarctic site. BNF was up to four-fold higher shortly after the addition of Mo, in both the laboratory and field experiments. A similar positive response to Mo was found in moss colonizing cyanobacterial biomass. As the growing season progressed, nitrogenase activity became progressively more P limited. The ARA : 15 N2 ratios increased with increasing Mo additions. These findings show that N2 fixation activity as well as cyanobacterial biomass in dominant feather mosses from boreal forests and subarctic tundra are limited by Mo availability.Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high-latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the availability of molybdenum (Mo), phosphorus (P), or both. BNF in dominant mosses was measured with the acetylene reduction assay (ARA) at different time intervals following Mo and P additions, in both laboratory microcosms with mosses from a boreal spruce forest and field plots in subarctic tundra. We further used a 15 N2 tracer technique to assess the ARA to N2 fixation conversion ratios at our subarctic site. BNF was up to four-fold higher shortly after the addition of Mo, in both the laboratory and field experiments. A similar positive response to Mo was found in moss colonizing cyanobacterial biomass. As the growing season progressed, nitrogenase activity became progressively more P limited. The ARA : 15 N2 ratios increased with increasing Mo additions. These findings show that N2 fixation activity as well as cyanobacterial biomass in dominant feather mosses from boreal forests and subarctic tundra are limited by Mo availability.
Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high-latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the availability of molybdenum (Mo), phosphorus (P), or both. BNF in dominant mosses was measured with the acetylene reduction assay (ARA) at different time intervals following Mo and P additions, in both laboratory microcosms with mosses from a boreal spruce forest and field plots in subarctic tundra. We further used a N tracer technique to assess the ARA to N fixation conversion ratios at our subarctic site. BNF was up to four-fold higher shortly after the addition of Mo, in both the laboratory and field experiments. A similar positive response to Mo was found in moss colonizing cyanobacterial biomass. As the growing season progressed, nitrogenase activity became progressively more P limited. The ARA :  N ratios increased with increasing Mo additions. These findings show that N fixation activity as well as cyanobacterial biomass in dominant feather mosses from boreal forests and subarctic tundra are limited by Mo availability.
* Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high-latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the availability of molybdenum (Mo), phosphorus (P), or both. * BNF in dominant mosses was measured with the acetylene reduction assay (ARA) at different time intervals following Mo and P additions, in both laboratory microcosms with mosses from a boreal spruce forest and field plots in subarctic tundra. We further used a super(15)N sub(2) tracer technique to assess the ARA to N sub(2) fixation conversion ratios at our subarctic site. * BNF was up to four-fold higher shortly after the addition of Mo, in both the laboratory and field experiments. A similar positive response to Mo was found in moss colonizing cyanobacterial biomass. As the growing season progressed, nitrogenase activity became progressively more P limited. The ARA : super(15)N sub(2) ratios increased with increasing Mo additions. * These findings show that N sub(2) fixation activity as well as cyanobacterial biomass in dominant feather mosses from boreal forests and subarctic tundra are limited by Mo availability.
Biological nitrogen fixation (BNF) performed by moss‐associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high‐latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the availability of molybdenum (Mo), phosphorus (P), or both. BNF in dominant mosses was measured with the acetylene reduction assay (ARA) at different time intervals following Mo and P additions, in both laboratory microcosms with mosses from a boreal spruce forest and field plots in subarctic tundra. We further used a ¹⁵N₂ tracer technique to assess the ARA to N₂ fixation conversion ratios at our subarctic site. BNF was up to four‐fold higher shortly after the addition of Mo, in both the laboratory and field experiments. A similar positive response to Mo was found in moss colonizing cyanobacterial biomass. As the growing season progressed, nitrogenase activity became progressively more P limited. The ARA : ¹⁵N₂ ratios increased with increasing Mo additions. These findings show that N₂ fixation activity as well as cyanobacterial biomass in dominant feather mosses from boreal forests and subarctic tundra are limited by Mo availability.
Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high-latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the availability of molybdenum (Mo), phosphorus (P), or both. BNF in dominant mosses was measured with the acetylene reduction assay (ARA) at different time intervals following Mo and P additions, in both laboratory microcosms with mosses from a boreal spruce forest and field plots in subarctic tundra. We further used a 15N2 tracer technique to assess the ARA to N2 fixation conversion ratios at our subarctic site. BNF was up to four-fold higher shortly after the addition of Mo, in both the laboratory and field experiments. A similar positive response to Mo was found in moss colonizing cyanobacterial biomass. As the growing season progressed, nitrogenase activity became progressively more P limited. The ARA: 15N2 ratios increased with increasing Mo additions. These findings show that N2 fixation activity as well as cyanobacterial biomass in dominant feather mosses from boreal forests and subarctic tundra are limited by Mo availability.
Summary Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high-latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the availability of molybdenum (Mo), phosphorus (P), or both. BNF in dominant mosses was measured with the acetylene reduction assay (ARA) at different time intervals following Mo and P additions, in both laboratory microcosms with mosses from a boreal spruce forest and field plots in subarctic tundra. We further used a 15N2 tracer technique to assess the ARA to N2 fixation conversion ratios at our subarctic site. BNF was up to four-fold higher shortly after the addition of Mo, in both the laboratory and field experiments. A similar positive response to Mo was found in moss colonizing cyanobacterial biomass. As the growing season progressed, nitrogenase activity became progressively more P limited. The ARA : 15N2 ratios increased with increasing Mo additions. These findings show that N2 fixation activity as well as cyanobacterial biomass in dominant feather mosses from boreal forests and subarctic tundra are limited by Mo availability.
Biological nitrogen fixation ( BNF ) performed by moss‐associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high‐latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the availability of molybdenum (Mo), phosphorus (P), or both. BNF in dominant mosses was measured with the acetylene reduction assay ( ARA ) at different time intervals following Mo and P additions, in both laboratory microcosms with mosses from a boreal spruce forest and field plots in subarctic tundra. We further used a 15 N 2 tracer technique to assess the ARA to N 2 fixation conversion ratios at our subarctic site. BNF was up to four‐fold higher shortly after the addition of Mo, in both the laboratory and field experiments. A similar positive response to Mo was found in moss colonizing cyanobacterial biomass. As the growing season progressed, nitrogenase activity became progressively more P limited. The ARA :  15 N 2 ratios increased with increasing Mo additions. These findings show that N 2 fixation activity as well as cyanobacterial biomass in dominant feather mosses from boreal forests and subarctic tundra are limited by Mo availability.
Summary Biological nitrogen fixation (BNF) performed by moss‐associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high‐latitude ecosystems. Yet, the nutrients that limit BNF remain elusive. Here, we tested whether this important ecosystem function is limited by the availability of molybdenum (Mo), phosphorus (P), or both. BNF in dominant mosses was measured with the acetylene reduction assay (ARA) at different time intervals following Mo and P additions, in both laboratory microcosms with mosses from a boreal spruce forest and field plots in subarctic tundra. We further used a 15N2 tracer technique to assess the ARA to N2 fixation conversion ratios at our subarctic site. BNF was up to four‐fold higher shortly after the addition of Mo, in both the laboratory and field experiments. A similar positive response to Mo was found in moss colonizing cyanobacterial biomass. As the growing season progressed, nitrogenase activity became progressively more P limited. The ARA : 15N2 ratios increased with increasing Mo additions. These findings show that N2 fixation activity as well as cyanobacterial biomass in dominant feather mosses from boreal forests and subarctic tundra are limited by Mo availability.
Author Kathrin Rousk
Robert Bradley
Jean-Philippe Bellenger
Anders Michelsen
Jefferson Degboe
Author_xml – sequence: 1
  givenname: Kathrin
  orcidid: 0000-0003-3140-9864
  surname: Rousk
  fullname: Rousk, Kathrin
  email: kathrin.rousk@bio.ku.dk
  organization: University of Copenhagen
– sequence: 2
  givenname: Jefferson
  surname: Degboe
  fullname: Degboe, Jefferson
  organization: Université de Sherbrooke
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  givenname: Anders
  surname: Michelsen
  fullname: Michelsen, Anders
  organization: University of Copenhagen
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  givenname: Robert
  surname: Bradley
  fullname: Bradley, Robert
  organization: Université de Sherbrooke
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  givenname: Jean‐Philippe
  surname: Bellenger
  fullname: Bellenger, Jean‐Philippe
  organization: Université de Sherbrooke
BackLink https://www.ncbi.nlm.nih.gov/pubmed/27883187$$D View this record in MEDLINE/PubMed
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Issue 1
Keywords boreal forests
cyanobacteria
subarctic tundra
biological nitrogen fixation
molybdenum (Mo)
Hylocomium splendens
Pleurozium schreberi
phosphorus (P)
Language English
License http://onlinelibrary.wiley.com/termsAndConditions#vor
2016 The Authors. New Phytologist © 2016 New Phytologist Trust.
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Snippet Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high-latitude...
Summary Biological nitrogen fixation (BNF) performed by moss‐associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine,...
Biological nitrogen fixation ( BNF ) performed by moss‐associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high‐latitude...
Summary Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine,...
* Biological nitrogen fixation (BNF) performed by moss-associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high-latitude...
Biological nitrogen fixation (BNF) performed by moss‐associated cyanobacteria is one of the main sources of new nitrogen (N) input in pristine, high‐latitude...
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SubjectTerms Acetylene - metabolism
Acetylene reduction
biological nitrogen fixation
Biomass
Boreal forests
Bryophyta - physiology
Cyanobacteria
Cyanobacteria - drug effects
Cyanobacteria - metabolism
Ecological function
Ecosystem
Ecosystems
field experimentation
Field tests
Growing season
Hylocomium splendens
latitude
Molybdenum
molybdenum (Mo)
Molybdenum - pharmacology
Mosses
mosses and liverworts
nitrogen
Nitrogen fixation
Nitrogen Fixation - drug effects
Nitrogen Isotopes
nitrogenase
nutrients
phosphorus
phosphorus (P)
Phosphorus - pharmacology
Picea
Pleurozium schreberi
stable isotopes
subarctic tundra
Tracer techniques
Tundra
Title Molybdenum and phosphorus limitation of moss-associated nitrogen fixation in boreal ecosystems
URI https://www.jstor.org/stable/90001555
https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.14331
https://www.ncbi.nlm.nih.gov/pubmed/27883187
https://www.proquest.com/docview/1872132434
https://www.proquest.com/docview/1843967894
https://www.proquest.com/docview/1877843592
https://www.proquest.com/docview/2000496367
Volume 214
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