Wetlands cover a small portion of the world, but have disproportionate influence on global
carbon (C) sequestration, carbon dioxide and methane emissions, and aquatic C fluxes …

The papers in this special issue feature state-of-the-art approaches to understanding the
physical processes related to sediment transport and geomorphology of complex coastal …

Agricultural drainage of organic soils has resulted in vast soil subsidence and contributed to
increased atmospheric carbon dioxide (CO2) concentrations. The Sacramento‐San Joaquin …

Tidal marshes maintain elevation relative to sea level through accumulation of mineral and
organic matter, yet this dynamic accumulation feedback mechanism has not been modeled …

Coastal ecosystems produce and sequester significant amounts of carbon (“blue carbon”),
which has been well documented in humid and semi‐humid regions of temperate and …

The Sacramento-San Joaquin Delta in California was drained and converted to agriculture
more than a century ago, and since then has experienced extreme rates of soil subsidence …

Tidal wetlands play an important role with respect to climate change because of both their
sensitivity to sea-level rise and their ability to sequester carbon dioxide from the atmosphere …

Tidal wetlands produce long-term soil organic carbon (C) stocks. Thus for carbon accounting
purposes, we need accurate and precise information on the magnitude and spatial …

Support for coastal wetland restoration projects that consider carbon (C) storage as a
climate mitigation benefit is growing as coastal wetlands are sites of substantial C …

As concerns continue to mount over nitrogen (N) use efficiency and the fate of excess N lost
to the environment, the need for accurate assessments of the contribution of non-fertilizer …