Activities
Our Contributions to the UN Decade of Ocean Science for Sustainable Development
Super Sites for Advancing Understanding of the Oceanic and Atmospheric Boundary Layers
A Global Network of Surface Platforms for the Observing Air-Sea Interactions Strategy (OASIS)
Southern Ocean Storms – Zephyr
The Southern Ocean Storms – Zephyr (SOS-Zephyr) team lead by Joellen Russel (University of Arizona) envisions a groundbreaking new NASA Earth Venture Mission that deploys an innovative scatterometer to provide the critical temporal sampling of high surface winds (> 20 m/s) to quantify the evolving air/sea carbon flux, and improve wind curl estimates to determine carbon supply from the deep ocean. In combination with (OASIS), SOS-Zephyr will transform our understanding of the global carbon cycle by significantly reducing the large uncertainties in the Southern Ocean.
Forecasting Changes to Ocean Biodiversity to Inform Decision-Making: A Critical Role for the Marine Biodiversity Observation Network (MBON)
“Forecasting Changes to Ocean Biodiversity to Inform Decision-Making: A Critical Role for the Marine Biodiversity Observation Network (MBON)”, led by Frank Muller-Karger (University of South Florida) seeks to collaborate in a transdisciplinary effort to 1) measure, monitor, and forecast changes in marine biodiversity, 2) understand natural and human-related causes including effects due to climate change, and 3) assess and predict how those changes affect ecosystem function and services over various spatial and temporal scales.
Game-changing increase in air-sea CO2 observations
A “Game-changing increase in air-sea CO2 observations,” led by Adrienne Sutton (NOAA PMEL), proposes a demonstration project for incorporating basin-scale Uncrewed Surface Vehicles (USV) observing into the global surface ocean CO2 observing network, laying the groundwork for efforts to reduce ocean CO2 flux uncertainty.
Butterfly: how the small-scale air-sea exchange of heat and moisture affects large-scale weather and climate
“Butterfly: how the small-scale air-sea exchange of heat and moisture affects large-scale weather and climate,” led by Chelle Gentemann (Farallon Institute), proposes a project to determine the impacts of
small-scale air-sea exchanges could potentially improve forecast accuracy from days to a season by providing global measurements of the air-sea turbulent heat and moisture fluxes.