Long-Term Euxinia Restricts Microbial Methane Removal in Eutrophic Coastal Basins

In eutrophic coastal waters, aerobic methane-oxidizing bacteria (MOB) mitigate methane emissions by oxidizing benthic methane even in the stratified, anoxic water column. However, ongoing warming and eutrophication lead to extended stratification periods, enhancing anoxic and sulfidic conditions (eu...

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Bibliographic Details
Main Author:	Jessica Venetz (14507216) (author)
Other Authors:	Nicky Dotsios (18768608) (author), Olga M. Żygadłowska (18768605) (author), Wytze K. Lenstra (6838325) (author), Niels A.G.M van Helmond (22391360) (author), Christoph Humborg (1279389) (author), Katherine D. McMahon (9072317) (author), Dina in ’t Zandt (22391363) (author), Caroline P. Slomp (405748) (author), Mike S. M. Jetten (6877589) (author), Annelies J. Veraart (12331385) (author)
Published:	2025
Subjects:	Biochemistry Neuroscience Pharmacology Ecology Inorganic Chemistry Mental Health Environmental Sciences not elsewhere classified Biological Sciences not elsewhere classified positive feedback loop overall bacterial diversity microbial network connectivity euxinic bottom water extended stratification periods anoxic water column persistent euxinic conditions eutrophic coastal waters eutrophic coastal basins mitigate methane emissions higher methane emissions mob relative abundance prolonged stratification enhancing anoxic sulfidic conditions redox conditions methane biofilter aerobic methane term euxinia summer 2022 sulfide accumulation stockholm archipelago simultaneous shift oxidizing bacteria ongoing warming narrow oxycline likely following global warming findings highlight filtering potential eutrophication lead
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Long-Term Euxinia Restricts Microbial Methane Removal in Eutrophic Coastal Basins

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