The Oligosaccharyltransferase AglB Supports Surface-Associated Growth and Iron Oxidation in Methanococcus maripaludis
Matthew P. Holten, Dallas R. Fonseca, Kyle C. Costa
Abstract
Matthew P. Holten, Dallas R. Fonseca, Kyle C. Costa
Abstract
Methanogenic archaea are responsible for producing the majority of methane on Earth and catalyze the terminal reactions in the degradation of organic matter in anoxic environments. Methanogens often grow as biofilms associated with surfaces or partner organisms; however, the molecular details of surface-associated growth remain uncharacterized.
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Methanogenic archaea are responsible for producing the majority of methane on Earth and catalyze the terminal reactions in the degradation of organic matter in anoxic environments. Methanogens often grow as biofilms associated with surfaces or partner organisms; however, the molecular details of surface-associated growth remain uncharacterized.
Key concepts: Methanococcus, Archaea, S-layer, Pilus, Methanogen, Hyperthermophile, Strain (injury), Methanogenesis