Freshwater ecosystems, including lakes, wetlands, and running waters, are estimated to
contribute over half the natural emissions of methane (CH4) globally, yet large uncertainties …

Gas exchange across the air–water interface drives the flux of climate-relevant gases and is
critical for biogeochemical processes in aquatic ecosystems. Despite the presence of …

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 …

Inland waters, including streams and rivers, are active components of the global carbon
cycle. Despite the large areal extent of the world's mountains, the role of mountain streams …

Anthropogenic activities increase the contributions of inland waters to global greenhouse
gas (GHG; CO 2, CH 4, and N 2 O) budgets, yet the mechanisms driving these increases are …

Rivers are globally significant natural sources of atmospheric methane (CH 4). However, the
effect of land use changes on riverine CH 4 dynamics, particularly in tropical zones, remain …

Inland waters are major sources of CO2 to the atmosphere. The origin of this CO2 is often
elusive, especially in high‐altitude streams that remain poorly studied at present. Here we …

Research on carbon gas flux to and from inland waters has increased over the past two
decades, driven mainly by the need to understand (1) the global carbon budget in regard to …

Evasion of carbon dioxide (CO2) from headwater streams is a dominant process controlling
the fate of terrestrially derived carbon in inland waters. However, limitations of sampling …

Carbon dioxide (CO 2) evasion from streams greatly contributes to global carbon fluxes.
Despite this, the temporal dynamics of CO 2 and its drivers remain poorly understood to …