The overlooked yet critical role of catholyte composition in microbial electrosynthesis. [PDF]
van der Lee D +4 more
europepmc +1 more source
Rice gs3 allele and low-nitrogen conditions enrich rhizosphere microbiota that mitigate methane emissions and promote beneficial crop traits. [PDF]
Kwon Y +13 more
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Environmental Constraints That Limit Methanogenesis
Tori Hoehler +3 more
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Biochar mitigates the peatland GHG dilemma under contrasting water table regimes: phase-dependent responses of CO<sub>2</sub> and CH<sub>4</sub> over a two-year study. [PDF]
Jeewani PH +4 more
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Salvianolic acid C inhibits methane emissions in dairy cows by targeting MCR and reshaping the rumen microbial community. [PDF]
Liu Z +7 more
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Interplay of iron and sulfur with syntrophic propionate oxidation. [PDF]
Weng N +4 more
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Overexpression of 2-mercaptoethanesulfonate biosynthesis genes <i>comDE</i> protects methane-producing archaea from oxidative stress. [PDF]
Salvi AM, Hines CJ, Buan NR.
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Effect of Dry-Wet Cycling on Methanotrophs in Wetland Soils. [PDF]
Zhu X, Zhang Z, Du A, Liu B.
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Biochemistry of Methanogenesis
Critical Reviews in Biochemistry and Molecular Biology, 1992Methane is a product of the energy-yielding pathways of the largest and most phylogenetically diverse group in the Archaea. These organisms have evolved three pathways that entail a novel and remarkable biochemistry. All of the pathways have in common a reduction of the methyl group of methyl-coenzyme M (CH3-S-CoM) to CH4.
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