In coastal waters, methane-oxidizing bacteria (MOB) can form a methane biofilter and
mitigate methane emissions. The metabolism of these MOBs is versatile, and the resilience …

The potential and drivers of microbial methane removal in the water column of seasonally
stratified coastal ecosystems and the importance of the methanotrophic community …

Background Freshwater sediment microbes are crucial decomposers that play a key role in
regulating biogeochemical cycles and greenhouse gas emissions. They often exhibit a …

Chemosynthesis is a metabolic process that transfers carbon to the biosphere using
reduced compounds. It is well recognised that chemosynthesis occurs in much of the ocean …

Microbial community succession in turbulent estuarine environments is key to the
understanding of microbial community development in estuaries. Centennial-scale sediment …

Anaerobic methane oxidation exerts a key control on greenhouse gas emissions, yet factors
that modulate the activity of microorganisms performing this function remain little explored. In …

Methane emissions from sewer systems have been a major concern in terms of posing
safety risks and aggravating the greenhouse effect. Discharging a large amount of sulfate …

Methylphosphonate (MPn), has been identified as a likely source of methane in aerobic
ocean and may be responsible for the “ocean methane paradox”, that is oversaturation of …

Coastal environments are a major source of marine methane in the atmosphere.
Eutrophication and deoxygenation have the potential to amplify the coastal methane …

Climate change–driven sea level rise threatens freshwater ecosystems and elicits salinity
stress in microbiomes. Methane emissions in these systems are largely mitigated by …