Climate change could alter terrestrial ecosystems, which are important sources and sinks of
the potent green‐house gases (GHGs) nitrous oxide (N2O) and methane (CH4), in ways that …

Commercially available fast-response analysers for methane (CH4) and nitrous oxide (N2O)
have recently become more sensitive, more robust and easier to operate. This has made …

Arctic terrestrial ecosystems are major global sources of methane (CH4); hence, it is
important to understand the seasonal and climatic controls on CH4 emissions from these …

It has been shown that reactive soil minerals, specifically iron (III)(oxyhydr) oxides, can trap
organic carbon in soils overlying intact permafrost, and may limit carbon mobilization and …

Long‐term atmospheric CO2 concentration records have suggested a reduction in the
positive effect of warming on high‐latitude carbon uptake since the 1990s. A variety of …

Methane (CH 4) emissions from the northern high‐latitude region represent potentially
significant biogeochemical feedbacks to the climate system. We compiled a database of …

Terrestrial net CH 4 surface fluxes often represent the difference between much larger gross
production and consumption fluxes and depend on multiple physical, biological, and …

Local observations indicate that climate change and shifting disturbance regimes are
causing permafrost degradation. However, the occurrence and distribution of permafrost …

Significant climate risks are associated with a positive carbon–temperature feedback in
northern latitude carbon-rich ecosystems, making an accurate analysis of human impacts on …

Natural wetlands constitute the largest and most uncertain source of methane (CH4) to the
atmosphere and a large fraction of them are found in the northern latitudes. These emissions …