Methane-oxidizing bacteria are characterized by their capability to grow on methane as sole
source of carbon and energy. Cultivation-dependent and-independent methods have …

Methane is one of the critical greenhouse gases, which absorb long wavelength radiation,
affects the chemistry of atmosphere and contributes to global climate change. Rice …

Methane is an important greenhouse gas and microbes in the environment play major roles
in both global methane emissions and terrestrial sinks. However, a full mechanistic …

Methane‐oxidizing bacteria (MOB) possess the ability to use methane for energy generation
and growth, thereby, providing a key ecosystem service that is highly relevant to the …

Abstract Knowledge about Sphagnum-associated microbial communities, their structure and
their origin is important to understand and maintain climate-relevant Sphagnum-dominated …

Aerated topsoils are important sinks for atmospheric methane (CH4) via oxidation by CH4‐
oxidizing bacteria (MOB). However, intensified management of grasslands and forests may …

Northern wetlands play a key role in the global carbon budget, particularly in the budgets of
the greenhouse gas methane. These ecosystems also determine the hydrology of northern …

Agriculture has marked impacts on the production of carbon dioxide (CO2) and consumption
of methane (CH4) by microbial communities in upland soils—Earth's largest biological sink …

Rice (Oryza sativa L.) paddies contribute approximately 7–17% to total global methane (CH
4) emissions and are considered an important source of human-induced climate change …

Aerobic methane-oxidizing bacteria (MOB) use a restricted substrate range, yet> 30 species-
equivalent operational taxonomical units (OTUs) are found in one paddy soil. How these …