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Woods Hole Coastal and Marine Science Center

We study extreme events and physical, biological, and chemical processes that shape our coastal and marine environments. Using this information, we identify hazards and provide critical information on our Nation’s resources. Our research and science-based products provide the strong scientific foundation needed by decisions makers, scientists, and state and federal agencies to address public safety, national security, and resource management across our Nation’s coastal and submerged lands.

News

Coastal Change Likelihood Assessment—Predicting Coastal Landscape Change with Accuracy

Coastal Change Likelihood Assessment—Predicting Coastal Landscape Change with Accuracy

Woods Hole Coastal and Marine Science Center Newsletter: August-November 2025

Woods Hole Coastal and Marine Science Center Newsletter: August-November 2025

Photo Roundup: August-November 2025

Photo Roundup: August-November 2025

Publications

Comparisons of shoreline positions from satellite-derived and traditional field- and remote-sensing techniques Comparisons of shoreline positions from satellite-derived and traditional field- and remote-sensing techniques

Satellite-derived shorelines (SDS) have the potential to help researchers answer critical coastal science questions and support work to predict coastal change by filling in the spatial and temporal gaps present in current field-based and remote-sensing data collection methods. The U.S. Geological Survey conducted comparison analyses of traditionally sourced shorelines and SDS in diverse...
Authors
Andrea C. O'Neill, Sharon Batiste, Daniel Buscombe, Joseph Burgess, Kara S. Doran, Ann Gibbs, Rachel Henderson, Julia Heslin, Catherine Janda, Mark Lundine, Joseph Terrano, Jonathan Warrick, Kathryn Weber

Proceedings of the Deepwater Hydrate Coring Expedition UT-GOM2-2 Proceedings of the Deepwater Hydrate Coring Expedition UT-GOM2-2

This report was the result of a scientific collaboration between the following institutions The University of Texas at Austin (UT), DOE, NETL, the United States Geological Survey (USGS), the Bureau of Ocean Energy Management (BOEM), The Ohio State University, Columbia University, University of New Hampshire, Oregon State University, University of Washington, Tufts University, Colorado...
Authors
Peter Flemings, Carla Thomas, Stephen Phillips, Timothy Collett, Ann Cook, Evan Solomon, Frederick Colwell, Joel Johnson, David Awwiller, Irita Aylward, Athma Bhandari, Donald Brooks, Jessica Buser-Young, Alejandro Cardona, Michael Casso, Rachel Coyte, Tom Darrah, Marcy Davis, Brandon Dugan, Dan Duncan, John Germaine, Melanie Holland, Jesse Houghton, Saffron Martin, N. Mills, Michael Mimitz, Daniel Minarich, Yuki Morono, Zachary Murphy, Joshua O’Connell, Ethan Petrou, Tom Pettigrew, John Pohlman, Alexey Portnov, Marcie Purkey Phillips, Thomas Redd, Derek Sawyer, Peter Schultheiss, Kelly Shannon, Cathal Small, Camille Sullivan, Kayla Tozier, Man-Yin Tsang, Camila Van Der Maal, William F. Waite, Taylor Walton

A simple predictive model for salt marsh internal deterioration under sea-level rise and sediment deficits: Application to Chesapeake Bay A simple predictive model for salt marsh internal deterioration under sea-level rise and sediment deficits: Application to Chesapeake Bay

Salt marshes are dynamic biogeomorphic systems reliant on autochthonous and allochthonous input to maintain their three-dimensional configuration. Sea-level rise, subsidence, and sediment deficits can lead to submergence, open-water expansion, and ultimately loss of the vegetated marsh plain and associated ecosystem services. Widely used management-focused models focus on vegetation...
Authors
Neil K. Ganju, Kate Ackerman, Zafer Defne, Giulio Mariotti, David Curson, Zachary Posnik, Joel Carr, Joanna Grand

Science

Prioritizing marsh restoration needs throughout Chesapeake Bay

A new USGS study estimates potential losses of Chesapeake Bay salt marshes that could occur in the next 80 years if no marsh restoration is undertaken. Using a suite of models, USGS researchers identified how future potential marsh changes can be used to prioritize present-day site-specific planning and restoration needs.
Prioritizing marsh restoration needs throughout Chesapeake Bay

Prioritizing marsh restoration needs throughout Chesapeake Bay

A new USGS study estimates potential losses of Chesapeake Bay salt marshes that could occur in the next 80 years if no marsh restoration is undertaken. Using a suite of models, USGS researchers identified how future potential marsh changes can be used to prioritize present-day site-specific planning and restoration needs.
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Seafloor Benthic Mapping and Characterization: Enhancing our Understanding of Aleutian Islands’ Hazards, Potential Seabed Minerals and Deep Corals

Seafloor Benthic Mapping and Characterization: Enhancing our Understanding of Aleutian Islands’ Hazards, Potential Seabed Minerals and Deep Corals

A USGS-led expedition in the Aleutian Arc off Alaska will provide critical information on energy resources, underwater earthquakes and other hazards, seafloor habitats, and biological resources, including key fisheries, as well as potential seabed minerals.
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Coastal Wetland Vulnerability to Climate Change and Sea-Level Rise: Understanding Ecological Thresholds and Ecosystem Transformations

Coastal Wetland Vulnerability to Climate Change and Sea-Level Rise: Understanding Ecological Thresholds and Ecosystem Transformations

Eighteen USGS coastal scientists from all four coasts of the conterminous United States are working together to advance the understanding of climate change and sea-level rise impacts to coastal wetlands.
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