Plant communities can attenuate flooding induced N2O fluxes by altering nitrogen cycling microbial communities and plant nitrogen uptake

Plant communities comprising species with different growth strategies and belonging to different functional groups can ensure stable productivity under variable climatic conditions. However, how plant communities can influence the response of nitrogen (N) cycling, in particular, soil microbial N cycling communities, N leaching and N2O fluxes under flooding, and their capacity to suppress flooding-induced N2O fluxes, remains unresolved. The aim of this study was to examine the effect of different plant communities composed of grasses and/or legumes on N cycling soil microorganisms and N2O fluxes, and how these effects are influenced by flooding. Our field experiment consisted of monocultures and two- and four-species mixtures of two grass and two legume species with different growth strategies (slow- and fast-growing species), grown in a fertilised sandy soil in the Netherlands. One year after plant establishment, we imposed paired control and flooding treatments for three weeks. We found that flooding significantly reduced plant N uptake and increased N2O fluxes. This increase was associated with higher abundances of N cycling microbial communities (except for ammonia-oxidising bacteria). Legume presence increased N2O fluxes, irrespective of the legume growth strategy or flooding, but this was not driven by changes in N cycling microbial communities; instead, it was related to an increase in soil nitrate availability. Mixing grasses with legumes promoted high plant N uptake and reduced N losses under control and flooded conditions, in particular when combining slow-growing species, and in the four-species mixture. Our results show that flooding exerted a strong influence on N cycling by increasing N leaching, N2O fluxes, microbial community abundances and decreasing plant N uptake. However, plant communities with slow-growing strategy had lowest relative abundance of nosZII bacteria and ameliorated flooding effects by both reducing N losses and enhancing plant N uptake.

Saved in:
Bibliographic Details
Main Authors: Barneze, Arlete S., van Groenigen, Jan Willem, Philippot, Laurent, Bru, David, Abalos, Diego, De Deyn, Gerlinde B.
Format: Article/Letter to editor biblioteca
Language:English
Subjects:Climate change, Grasslands, Microbial community, Nitrogen, Plant productivity,
Online Access:https://research.wur.nl/en/publications/plant-communities-can-attenuate-flooding-induced-nsub2subo-fluxes
Tags: Add Tag
No Tags, Be the first to tag this record!
id dig-wur-nl-wurpubs-618124
record_format koha
spelling dig-wur-nl-wurpubs-6181242024-11-15 Barneze, Arlete S. van Groenigen, Jan Willem Philippot, Laurent Bru, David Abalos, Diego De Deyn, Gerlinde B. Article/Letter to editor Soil Biology and Biochemistry 185 (2023) ISSN: 0038-0717 Plant communities can attenuate flooding induced N2O fluxes by altering nitrogen cycling microbial communities and plant nitrogen uptake 2023 Plant communities comprising species with different growth strategies and belonging to different functional groups can ensure stable productivity under variable climatic conditions. However, how plant communities can influence the response of nitrogen (N) cycling, in particular, soil microbial N cycling communities, N leaching and N2O fluxes under flooding, and their capacity to suppress flooding-induced N2O fluxes, remains unresolved. The aim of this study was to examine the effect of different plant communities composed of grasses and/or legumes on N cycling soil microorganisms and N2O fluxes, and how these effects are influenced by flooding. Our field experiment consisted of monocultures and two- and four-species mixtures of two grass and two legume species with different growth strategies (slow- and fast-growing species), grown in a fertilised sandy soil in the Netherlands. One year after plant establishment, we imposed paired control and flooding treatments for three weeks. We found that flooding significantly reduced plant N uptake and increased N2O fluxes. This increase was associated with higher abundances of N cycling microbial communities (except for ammonia-oxidising bacteria). Legume presence increased N2O fluxes, irrespective of the legume growth strategy or flooding, but this was not driven by changes in N cycling microbial communities; instead, it was related to an increase in soil nitrate availability. Mixing grasses with legumes promoted high plant N uptake and reduced N losses under control and flooded conditions, in particular when combining slow-growing species, and in the four-species mixture. Our results show that flooding exerted a strong influence on N cycling by increasing N leaching, N2O fluxes, microbial community abundances and decreasing plant N uptake. However, plant communities with slow-growing strategy had lowest relative abundance of nosZII bacteria and ameliorated flooding effects by both reducing N losses and enhancing plant N uptake. en application/pdf https://research.wur.nl/en/publications/plant-communities-can-attenuate-flooding-induced-nsub2subo-fluxes 10.1016/j.soilbio.2023.109142 https://edepot.wur.nl/637014 Climate change Grasslands Microbial community Nitrogen Plant productivity https://creativecommons.org/licenses/by-nc-nd/4.0/ https://creativecommons.org/licenses/by-nc-nd/4.0/ Wageningen University & Research
institution WUR NL
collection DSpace
country Países bajos
countrycode NL
component Bibliográfico
access En linea
databasecode dig-wur-nl
tag biblioteca
region Europa del Oeste
libraryname WUR Library Netherlands
language English
topic Climate change
Grasslands
Microbial community
Nitrogen
Plant productivity
Climate change
Grasslands
Microbial community
Nitrogen
Plant productivity
spellingShingle Climate change
Grasslands
Microbial community
Nitrogen
Plant productivity
Climate change
Grasslands
Microbial community
Nitrogen
Plant productivity
Barneze, Arlete S.
van Groenigen, Jan Willem
Philippot, Laurent
Bru, David
Abalos, Diego
De Deyn, Gerlinde B.
Plant communities can attenuate flooding induced N2O fluxes by altering nitrogen cycling microbial communities and plant nitrogen uptake
description Plant communities comprising species with different growth strategies and belonging to different functional groups can ensure stable productivity under variable climatic conditions. However, how plant communities can influence the response of nitrogen (N) cycling, in particular, soil microbial N cycling communities, N leaching and N2O fluxes under flooding, and their capacity to suppress flooding-induced N2O fluxes, remains unresolved. The aim of this study was to examine the effect of different plant communities composed of grasses and/or legumes on N cycling soil microorganisms and N2O fluxes, and how these effects are influenced by flooding. Our field experiment consisted of monocultures and two- and four-species mixtures of two grass and two legume species with different growth strategies (slow- and fast-growing species), grown in a fertilised sandy soil in the Netherlands. One year after plant establishment, we imposed paired control and flooding treatments for three weeks. We found that flooding significantly reduced plant N uptake and increased N2O fluxes. This increase was associated with higher abundances of N cycling microbial communities (except for ammonia-oxidising bacteria). Legume presence increased N2O fluxes, irrespective of the legume growth strategy or flooding, but this was not driven by changes in N cycling microbial communities; instead, it was related to an increase in soil nitrate availability. Mixing grasses with legumes promoted high plant N uptake and reduced N losses under control and flooded conditions, in particular when combining slow-growing species, and in the four-species mixture. Our results show that flooding exerted a strong influence on N cycling by increasing N leaching, N2O fluxes, microbial community abundances and decreasing plant N uptake. However, plant communities with slow-growing strategy had lowest relative abundance of nosZII bacteria and ameliorated flooding effects by both reducing N losses and enhancing plant N uptake.
format Article/Letter to editor
topic_facet Climate change
Grasslands
Microbial community
Nitrogen
Plant productivity
author Barneze, Arlete S.
van Groenigen, Jan Willem
Philippot, Laurent
Bru, David
Abalos, Diego
De Deyn, Gerlinde B.
author_facet Barneze, Arlete S.
van Groenigen, Jan Willem
Philippot, Laurent
Bru, David
Abalos, Diego
De Deyn, Gerlinde B.
author_sort Barneze, Arlete S.
title Plant communities can attenuate flooding induced N2O fluxes by altering nitrogen cycling microbial communities and plant nitrogen uptake
title_short Plant communities can attenuate flooding induced N2O fluxes by altering nitrogen cycling microbial communities and plant nitrogen uptake
title_full Plant communities can attenuate flooding induced N2O fluxes by altering nitrogen cycling microbial communities and plant nitrogen uptake
title_fullStr Plant communities can attenuate flooding induced N2O fluxes by altering nitrogen cycling microbial communities and plant nitrogen uptake
title_full_unstemmed Plant communities can attenuate flooding induced N2O fluxes by altering nitrogen cycling microbial communities and plant nitrogen uptake
title_sort plant communities can attenuate flooding induced n2o fluxes by altering nitrogen cycling microbial communities and plant nitrogen uptake
url https://research.wur.nl/en/publications/plant-communities-can-attenuate-flooding-induced-nsub2subo-fluxes
work_keys_str_mv AT barnezearletes plantcommunitiescanattenuatefloodinginducedn2ofluxesbyalteringnitrogencyclingmicrobialcommunitiesandplantnitrogenuptake
AT vangroenigenjanwillem plantcommunitiescanattenuatefloodinginducedn2ofluxesbyalteringnitrogencyclingmicrobialcommunitiesandplantnitrogenuptake
AT philippotlaurent plantcommunitiescanattenuatefloodinginducedn2ofluxesbyalteringnitrogencyclingmicrobialcommunitiesandplantnitrogenuptake
AT brudavid plantcommunitiescanattenuatefloodinginducedn2ofluxesbyalteringnitrogencyclingmicrobialcommunitiesandplantnitrogenuptake
AT abalosdiego plantcommunitiescanattenuatefloodinginducedn2ofluxesbyalteringnitrogencyclingmicrobialcommunitiesandplantnitrogenuptake
AT dedeyngerlindeb plantcommunitiescanattenuatefloodinginducedn2ofluxesbyalteringnitrogencyclingmicrobialcommunitiesandplantnitrogenuptake
_version_ 1816151287546249216