Crenothrix are major methane consumers in stratified lakes

被引:0
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作者
Kirsten Oswald
Jon S Graf
Sten Littmann
Daniela Tienken
Andreas Brand
Bernhard Wehrli
Mads Albertsen
Holger Daims
Michael Wagner
Marcel MM Kuypers
Carsten J Schubert
Jana Milucka
机构
[1] Eawag,Department of Surface Waters—Research and Management
[2] Swiss Federal Institute of Aquatic Science and Technology,Department of Environmental Systems Science
[3] Institute of Biogeochemistry and Pollutant Dynamics,Department of Biogeochemistry
[4] ETH Zurich,Department of Chemistry and Bioscience
[5] Swiss Federal Institute of Technology,Division of Microbial Ecology, Department of Microbiology and Ecosystem Science
[6] Max Planck Institute for Marine Microbiology,undefined
[7] Center for Microbial Communities,undefined
[8] Aalborg University,undefined
[9] Research Network Chemistry meets Microbiology,undefined
[10] University of Vienna,undefined
来源
The ISME Journal | 2017年 / 11卷
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摘要
Methane-oxidizing bacteria represent a major biological sink for methane and are thus Earth’s natural protection against this potent greenhouse gas. Here we show that in two stratified freshwater lakes a substantial part of upward-diffusing methane was oxidized by filamentous gamma-proteobacteria related to Crenothrix polyspora. These filamentous bacteria have been known as contaminants of drinking water supplies since 1870, but their role in the environmental methane removal has remained unclear. While oxidizing methane, these organisms were assigned an ‘unusual’ methane monooxygenase (MMO), which was only distantly related to ‘classical’ MMO of gamma-proteobacterial methanotrophs. We now correct this assignment and show that Crenothrix encode a typical gamma-proteobacterial PmoA. Stable isotope labeling in combination swith single-cell imaging mass spectrometry revealed methane-dependent growth of the lacustrine Crenothrix with oxygen as well as under oxygen-deficient conditions. Crenothrix genomes encoded pathways for the respiration of oxygen as well as for the reduction of nitrate to N2O. The observed abundance and planktonic growth of Crenothrix suggest that these methanotrophs can act as a relevant biological sink for methane in stratified lakes and should be considered in the context of environmental removal of methane.
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页码:2124 / 2140
页数:16
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