Biogeomorphic wetlands cover 1% of Earth's surface but store 20% of ecosystem organic
carbon. This disproportional share is fueled by high carbon sequestration rates and effective …

Nitrogen (N) cycling in mangroves is complex, with rapid turnover of low dissolved N
concentrations, but slow turnover of particulate N. Most N is stored in soils. The largest …

Despite growing attention on the contribution of macroalgae to carbon cycling and
sequestration (blue carbon), more observational data is needed to constrain current …

In intertidal systems, the type and role of interactions among sediment microorganisms,
animals, plants and abiotic factors are complex and not well understood. Such interactions …

Blue carbon sequestration in seagrass meadows has been proposed as a low-risk, nature-
based solution to offset carbon emissions and reduce the effects of climate change …

Carbon dioxide removal (CDR) is gaining recognition as a necessary action in addition to
emissions reduction to prevent some of the worst effects of climate change. Macroalgae …

The introduction and establishment of exotic species often result in significant changes in
recipient communities and their associated ecosystem services. However, usually the …

For millennia, coastal and marine ecosystems have adapted and flourished in the Red Sea's
unique environment. Surrounded by deserts on all sides, the Red Sea is subjected to high …

Blue carbon ecosystems (BCEs), such as mangroves, tidal marshes, and seagrasses, are
attracting interest for their potential to mitigate climate change arising from their high rates of …

Seascape connectivity increases carbon and nitrogen exchange across coastal ecosystems
through flow of particulate organic matter (POM). However, there are still critical gaps in …