Sulfur Cycling and Methanogenesis Primarily Drive Microbial Colonization of the Highly Sulfidic Urania Deep Hypersaline Basin

Urania basin in the deep Mediterranean Sea houses a lake that is > 100 m deep, devoid of oxygen, 6 times more saline than seawater, and has very high levels of methane and particularly sulf ide (up to 16 mM), making it among the most sulfidic water bodies on Earth. Along the depth profile there a...

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Veröffentlicht in:	Proceedings of the National Academy of Sciences - PNAS 2009-06, Vol.106 (23), p.9151-9156
Hauptverfasser:	Borin, Sara, Brusetti, Lorenzo, Mapelli, Francesca, D'Auria, Giuseppe, Brusa, Tullio, Marzorati, Massimo, Rizzi, Aurora, Yakimov, Michail, Marty, Danielle, de Lange, Gert J., van der Wielen, Paul, Bolhuis, Henk, McGenity, Terry J., Polymenakou, Paraskevi N., Malinverno, Elisa, Giuliano, Laura, Corselli, Cesare, Daffonchio, Daniele, Karl, David M.
Format:	Artikel
Sprache:	eng
Schlagworte:	Archaea Archaea - metabolism Bacteria Bacteria - metabolism Basins Biomass Brine Brines Cell number Cells Colonization Data processing Deoxyribonucleic acid DNA DNA fingerprinting Ecosystem Gene libraries Houses Lakes Manganese - metabolism Marine environment Methane Methane production Methanogenesis Molecular Sequence Data Nitrates - metabolism Nutrient availability Ocean, Atmosphere Organic matter Oxygen Oxygen - metabolism Physical Sciences Proteobacteria rRNA 16S rRNA genes Salinity Salinity effects Sciences of the Universe Sea water Seas Seawater Seawater - microbiology Sulfate Sulfates Sulfide Sulfides Sulfur Sulfur - metabolism Water - metabolism Water column
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