Versatile methanotrophs form an active methane biofilter in the oxycline of a seasonally stratified coastal basin

The potential and drivers of microbial methane removal in the water column of seasonally stratified coastal ecosystems and the importance of the methanotrophic community composition for ecosystem functioning are not well explored. Here, we combined depth profiles of oxygen and methane with 16S rRNA...

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Veröffentlicht in:Environmental microbiology 2023-11, Vol.25 (11), p.2277-2288
Hauptverfasser: Venetz, Jessica, Żygadłowska, Olga M., Lenstra, Wytze K., Helmond, Niels A. G. M., Nuijten, Guylaine H. L., Wallenius, Anna J., Dalcin Martins, Paula, Slomp, Caroline P., Jetten, Mike S. M., Veraart, Annelies J.
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container_end_page 2288
container_issue 11
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container_title Environmental microbiology
container_volume 25
creator Venetz, Jessica
Żygadłowska, Olga M.
Lenstra, Wytze K.
Helmond, Niels A. G. M.
Nuijten, Guylaine H. L.
Wallenius, Anna J.
Dalcin Martins, Paula
Slomp, Caroline P.
Jetten, Mike S. M.
Veraart, Annelies J.
description The potential and drivers of microbial methane removal in the water column of seasonally stratified coastal ecosystems and the importance of the methanotrophic community composition for ecosystem functioning are not well explored. Here, we combined depth profiles of oxygen and methane with 16S rRNA gene amplicon sequencing, metagenomics and methane oxidation rates at discrete depths in a stratified coastal marine system (Lake Grevelingen, The Netherlands). Three amplicon sequence variants (ASVs) belonging to different genera of aerobic Methylomonadaceae and the corresponding three methanotrophic metagenome‐assembled genomes (MOB‐MAGs) were retrieved by 16S rRNA sequencing and metagenomic analysis, respectively. The abundances of the different methanotrophic ASVs and MOB‐MAGs peaked at different depths along the methane oxygen counter‐gradient and the MOB‐MAGs show a quite diverse genomic potential regarding oxygen metabolism, partial denitrification and sulphur metabolism. Moreover, potential aerobic methane oxidation rates indicated high methanotrophic activity throughout the methane oxygen counter‐gradient, even at depths with low in situ methane or oxygen concentration. This suggests that niche‐partitioning with high genomic versatility of the present Methylomonadaceae might contribute to the functional resilience of the methanotrophic community and ultimately the efficiency of methane removal in the stratified water column of a marine basin.
doi_str_mv 10.1111/1462-2920.16448
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Three amplicon sequence variants (ASVs) belonging to different genera of aerobic Methylomonadaceae and the corresponding three methanotrophic metagenome‐assembled genomes (MOB‐MAGs) were retrieved by 16S rRNA sequencing and metagenomic analysis, respectively. The abundances of the different methanotrophic ASVs and MOB‐MAGs peaked at different depths along the methane oxygen counter‐gradient and the MOB‐MAGs show a quite diverse genomic potential regarding oxygen metabolism, partial denitrification and sulphur metabolism. Moreover, potential aerobic methane oxidation rates indicated high methanotrophic activity throughout the methane oxygen counter‐gradient, even at depths with low in situ methane or oxygen concentration. 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source Wiley Online Library Journals Frontfile Complete
subjects Biofilters
Coastal ecosystems
Community composition
Concentration gradient
Denitrification
Depth
Depth profiling
Gene sequencing
Genomes
Genomics
Lakes
Metabolism
Metagenomics
Methane
Methanotrophic bacteria
Microorganisms
Ocean basins
Oxidation
Oxygen
Oxygen metabolism
Removal
rRNA 16S
Sequencing
Stratified water
Sulphur
Water circulation
Water column
title Versatile methanotrophs form an active methane biofilter in the oxycline of a seasonally stratified coastal basin
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