Accurate prediction of soil respiration (Rs) under climate change requires a comprehensive
understanding of the dominant factors. However, the combined effects of multiple …

CO2 is 45 to 50 times more concentrated in soil than in air, resulting in global diffusive fluxes
that outpace fossil fuel combustion by an order of magnitude. Despite the scale of soil CO2 …

Inland waters are an important component of the global carbon budget. However, our ability
to predict carbon fluxes from stream systems remains uncertain, as pCO2 varies within …

A quantitative understanding of temporal patterns of soil respiration (SR) and its
components, as well as of their controlling factors, are key to the estimation of grassland C …

In the northern hemisphere, terrestrial ecosystems transition from net sources of CO2 to the
atmosphere in winter to net ecosystem carbon sinks during spring. The timing (or phase) of …

Soil carbon leakage into groundwater is a crucial and natural carbon sink process in the
subsurface carbon cycling. However, the primary driving force for soil carbon downward …

Oxidative weathering of sedimentary rocks plays an important role in the global carbon
cycle. Rhenium (Re) has been proposed as a tracer of rock organic carbon (OCpetro) …

Characterizing the seasonal patterns of soil respiration using a biophysical model is crucial
for understanding the mechanisms of the terrestrial carbon (C) cycle. We developed a …

Carbon emissions from soil respiration (R s) in arid and semi-arid regions play a crucial role
in the global carbon cycle and are strongly regulated by hydrothermal factors. In this study …

Long-term soil CO 2 emission measurements are necessary for detecting trends and
interannual variability in the terrestrial carbon cycle. Such records are becoming …