Methanotrophs oxidize most of the methane (CH4) produced in natural and anthropogenic
ecosystems. Often living close to soil surfaces, these microorganisms must frequently adjust …

The growth of all methanogens is limited to a specific temperature range. However,
Methanothermobacter thermautotrophicus can be found in a variety of natural and artificial …

The rapid increase of the potent greenhouse gas methane in the atmosphere creates great
urgency to develop and deploy technologies for methane mitigation. One approach to …

We studied the effects of an acute temperature increase (heat stress) on methane oxidation
and methanotroph community structure in a laboratory-scale experiment with paddy soil …

Varying pH globally affects terrestrial microbial communities and biochemical cycles.
Methanotrophs effectively mitigate methane fluxes in terrestrial habitats. Many …

Methane-oxidizing bacteria (methanotrophs) play a vital role in reducing atmospheric
methane emissions, and hence mitigating their potent global warming effects. A significant …

Methanotrophs use methane as their sole carbon and energy source and represent an
attractive platform for converting single-carbon feedstocks into value-added compounds …

Microbial carbon degradation and methanogenesis in wetland soils generate a large
proportion of atmospheric methane, a highly potent greenhouse gas. Despite their potential …

Methane-oxidizing bacteria (methanotrophs) play a vital role in reducing atmospheric
methane emissions, and hence mitigating their potent global warming effects. A significant …

Methane-oxidizing bacteria (methanotrophs) have attracted considerable attention over the
past 30 years. They have the unique ability to use methane as sole carbon and energy …