A. Anthony Bloom

TL;DR: The heterogeneous climate forcing and carbon response over the three tropical continents to the 2015–2016 El Niño challenges previous studies that suggested that a single dominant process determines carbon cycle interannual variability.

TL;DR: A combination of satellite data, which indicate water table depth and surface temperature, and atmospheric methane concentrations are used to determine the location and strength of methane emissions from wetlands, the largest natural global source, and tropical and higher-latitude CH4 variations are largely described by Γ and TS variations, respectively.

TL;DR: The first global estimates, to the authors' knowledge, of carbon cycle state and process variables at a 1° × 1° resolution are retrieved by combining a carbon balance model with satellite observations of biomass and leaf area and soil carbon data and reveal emergent continental-scale patterns and relationships between carbon states and processes.

TL;DR: In this paper, the authors synthesize regional in situ observations of CO2 flux from Arctic and boreal soils to assess current and future winter carbon losses from the northern permafrost domain.

TL;DR: This gridded, time-resolved inventory provides an improved basis for inversion of atmospheric methane observations to estimate US methane emissions and interpret the results in terms of the underlying processes.