Physiological Stress Response to Sulfide Exposure of Freshwater Anaerobic Methanotrophic Archaea

Freshwater wetlands and coastal sediments are becoming hotspots for the emission of the greenhouse gas methane. Eutrophication-induced deposition of organic matter leads to elevated methanogenesis and sulfate reduction, thereby increasing the concentrations of methane and toxic sulfide, respectively...

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Main Author:	Maider J. Echeveste Medrano (21388771) (author)
Other Authors:	Sarah Lee (520785) (author), Rob de Graaf (14835019) (author), B. Conall Holohan (9201902) (author), Irene Sánchez-Andrea (1518235) (author), Mike S. M. Jetten (6877589) (author), Cornelia U. Welte (7509245) (author)
Published:	2025
Subjects:	Neuroscience Physiology Evolutionary Biology Ecology Inorganic Chemistry Chemical Sciences not elsewhere classified within 5 days rich aquatic ecosystems oxidizing activity decreased organic matter leads methanoperedens ” responds anaerobic methanotrophic biofilter enrichment culture dominated physiological stress response greenhouse gas methane freshwater anaerobic methane oxidizing archaeon “< term exposure resulted term sulfide exposure term exposure sulfide exposure enrichment throughout sulfide stress stress adaptation methane cycling well explored valuable baseline toxic sulfide thereby increasing sulfide detoxification results provide partially recovered metagenomics indicated lp ). induced deposition increased expression group iii genes encoding entire experiment elevated methanogenesis coastal sediments candidatus </ ca </ becoming hotspots
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Physiological Stress Response to Sulfide Exposure of Freshwater Anaerobic Methanotrophic Archaea

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