Abstract Methane (CH 4), one of the key long-lived atmospheric greenhouse gases, is
primarily produced from organic matter. Accordingly, net primary production of organic …

Wetland plants transport oxygen to belowground tissues to survive in anoxic sediments, and
simultaneously conduct methane (CH 4) from the sediment to the atmosphere. Although …

Coastal ecosystems can efficiently remove carbon dioxide (CO2) from the atmosphere and
are thus promoted for nature-based climate change mitigation. Natural methane (CH4) …

Time series of wetland methane fluxes measured by eddy covariance require gap-filling to
estimate daily, seasonal, and annual emissions. Gap-filling methane fluxes is challenging …

Despite their small spatial extent, fluvial ecosystems play a significant role in processing and
transporting carbon in aquatic networks, which results in substantial emission of methane …

The unprecedented population and anthropogenic activity rise have challenged the future
look up for shifts in global temperature and climate patterns. Anthropogenic activities such …

We use optimal estimation (OE) to quantify methane fluxes based on total column CH4 data
from the Greenhouse Gases Observing Satellite (GOSAT) and the GEOS-Chem global …

Despite the recognized importance of flowing waters in global greenhouse gas (GHG)
budgets, riverine GHG models remain oversimplified, consequently restraining the …

Wetlands play a disproportionate role in the global climate as major sources and sinks of
greenhouse gases. Herbicides are the most heavily used agrochemicals and are frequently …

Freshwater ecosystems are an important source of the greenhouse gas methane (CH 4),
and their emissions are expected to increase due to eutrophication. Two commonly applied …