Although freeze–thaw cycles can alter soil physical properties and microbial activity, their
overall impact on soil functioning remains unclear. This review addresses the effects of …

An overview is provided of the potential effects of climate change on the watershed
biogeochemical processes and surface water quality in mountainous watersheds of …

Altered freeze‐thaw cycle (FTC) patterns due to global climate change may affect nitrogen
(N) cycling in terrestrial ecosystems. However, the general responses of soil N pools and …

Soil dissolved organic matter (DOM) is mainly derived from the microbial degradation of
organic matter. Intense freeze–thaw cycles (FTCs) elicited by warming alter the production …

In temperate forest ecosystems, accelerated freeze–thaw cycles caused by winter climate
change are expected to affect nitrogen (N) cycling in soils. Net N mineralization and …

To understand the effects of soil temperature and moisture on rice straw decomposition
during the off-rice season and subsequent CH 4 production in rice growth season, we firstly …

In forest ecosystems of East Asia region, soil freeze-thaw events occur normally in the field,
which may affect soil carbon (C) and nitrogen (N) dynamics and greenhouse gas (GHG) …

The transformation and migration process of soil organic carbon (SOC) could be changed
during freeze-thaw cycles (FTCs) and may further affect the SOC distribution in the …

Freeze-thaw cycles (FTCs) may affect soil carbon (C) and nitrogen (N) cycling and thus
stimulate greenhouse gas emissions in cold regions. However, the dynamics of these gases …

To clarify the microbiological factors that explain high N2O emission in an arable peat soil in
Central Kalimantan, Indonesia, a substrate-induced respiration-inhibition experiment was …