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Coastal and Marine Hazards and Resources Program images.

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USGS personnel collecting samples in Barnegat Bay, NJ
Collecting Samples in Barnegat Bay
Collecting Samples in Barnegat Bay
Collecting Samples in Barnegat Bay

Box-cores provide a relatively undistributed look into the recent past to help better understand the processes contributing to sediment deposition and erosion.

Box-cores provide a relatively undistributed look into the recent past to help better understand the processes contributing to sediment deposition and erosion.

USGS personnel collecting sediments
Barnegat Bay, NJ Surface Sediments
Barnegat Bay, NJ Surface Sediments
Barnegat Bay, NJ Surface Sediments

Surface sediments will be analyzed for various physical parameters that will be used as initial conditions in hydrodynamic and sediment transport models.

 

Surface sediments will be analyzed for various physical parameters that will be used as initial conditions in hydrodynamic and sediment transport models.

 

USGS staff diving in Chincoteague Bay, MD
Measuring seagrass!
Measuring seagrass!
First map shows aerial view of beach area, next with 50-centimeter sea-level rise, last with added annual storm.
Flood Map, Stinson Beach
Flood Map, Stinson Beach
Flood Map, Stinson Beach

Flood maps from Our Coast, Our Future showing Stinson Beach today (slide 1); with a 50-centimeter sea-level rise (slide 2); and when an annual storm strikes in addition to 50-centimeter sea-level rise (slide 3). Green patches are low-lying areas prone to flooding.

Flood maps from Our Coast, Our Future showing Stinson Beach today (slide 1); with a 50-centimeter sea-level rise (slide 2); and when an annual storm strikes in addition to 50-centimeter sea-level rise (slide 3). Green patches are low-lying areas prone to flooding.

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Oregon Inlet, North Carolina. 
Aerial photographs of Oregon Inlet, North Carolina
Aerial photographs of Oregon Inlet, North Carolina
Aerial photographs of Oregon Inlet, North Carolina

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Oregon Inlet, North Carolina. View looking west along the North Carolina shore. High waves and storm surge from Hurricane Joaquin eroded the beach and inundated the low area in the backshore at Oregon Inlet (A, green box, blue arrows).

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Oregon Inlet, North Carolina. View looking west along the North Carolina shore. High waves and storm surge from Hurricane Joaquin eroded the beach and inundated the low area in the backshore at Oregon Inlet (A, green box, blue arrows).

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Salvo, North Carolina. 
Aerial photographs of Salvo, North Carolina
Aerial photographs of Salvo, North Carolina
Aerial photographs of Salvo, North Carolina

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Salvo, North Carolina. View looking west along the North Carolina shore. Waves and surge from Hurricane Joaquin eroded the beach, causing significant shoreline retreat and a narrower beach, leaving deposits of darker sand at the base of the dune (green arrow).

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Salvo, North Carolina. View looking west along the North Carolina shore. Waves and surge from Hurricane Joaquin eroded the beach, causing significant shoreline retreat and a narrower beach, leaving deposits of darker sand at the base of the dune (green arrow).

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Camp Lejeune, North Carolina.
Aerial photographs of Camp Lejeune, North Carolina
Aerial photographs of Camp Lejeune, North Carolina
Aerial photographs of Camp Lejeune, North Carolina

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Camp Lejeune, North Carolina. View looking northwest along the North Carolina shore. Waves and surge from Hurricane Joaquin eroded the beach, causing significant shoreline retreat and a narrower beach.

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Camp Lejeune, North Carolina. View looking northwest along the North Carolina shore. Waves and surge from Hurricane Joaquin eroded the beach, causing significant shoreline retreat and a narrower beach.

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Topsail, North Carolina. 
Aerial photographs of Topsail, North Carolina
Aerial photographs of Topsail, North Carolina
Aerial photographs of Topsail, North Carolina

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Topsail, North Carolina. View looking northwest along the North Carolina shore. Elevated storm-induced water levels overtopped the low dunes here causing the dune to overwash. Sand was transported landward, burying the marsh (green arrow).

Near vertical (top, middle) and low angle oblique (bottom) aerial photographs of Topsail, North Carolina. View looking northwest along the North Carolina shore. Elevated storm-induced water levels overtopped the low dunes here causing the dune to overwash. Sand was transported landward, burying the marsh (green arrow).

marsh, rocky coast, barrier beach, coastal bluff
Sea-level rise effects vary in geomorphology and ecology
Sea-level rise effects vary in geomorphology and ecology
Sea-level rise effects vary in geomorphology and ecology

The effects of sea-level rise will vary by differences in the geomorphology and ecology of the landscape.  Images show marsh (top left) rocky coast (top right), barrier beach (bottom left), and coastal bluff (bottom right)

The effects of sea-level rise will vary by differences in the geomorphology and ecology of the landscape.  Images show marsh (top left) rocky coast (top right), barrier beach (bottom left), and coastal bluff (bottom right)

Map showing extent and coverage of coastal response type predictions
Coastal Response Predictions
Coastal Response Predictions
Coastal Response Predictions

Map showing extent and coverage of coastal response type predictions; insets display different prediction types and geospatial variability through time. Predictions of coastal response likelihood for the four prediction time steps at Blackwater National Wildlife Refuge, VA.

Map showing extent and coverage of coastal response type predictions; insets display different prediction types and geospatial variability through time. Predictions of coastal response likelihood for the four prediction time steps at Blackwater National Wildlife Refuge, VA.

A research boat sits at a dock.
Arcticus at its homeport
Arcticus at its homeport
Arcticus at its homeport

The research vessel (R/V) Arcticus at its homeport, the Cheboygan Vessel Base in Cheboygan, Michigan.

The research vessel (R/V) Arcticus at its homeport, the Cheboygan Vessel Base in Cheboygan, Michigan.

Elkhorn coral has died and turned to rubble.
Corals die, turn to rubble
Corals die, turn to rubble
Corals die, turn to rubble

These Elkhorn corals (Acropora palmata) near Buck Island, U.S. Virgin Islands have died and collapsed into rubble. As coral reef structure degrades, valuable habitat for marine life is lost and nearby coastlines become more susceptible to storms, waves and erosion.

These Elkhorn corals (Acropora palmata) near Buck Island, U.S. Virgin Islands have died and collapsed into rubble. As coral reef structure degrades, valuable habitat for marine life is lost and nearby coastlines become more susceptible to storms, waves and erosion.

Photograph of Laura Brothers in front of computer equipment.
Lights! Camera! Action!
Lights! Camera! Action!
Lights! Camera! Action!

Dr. Laura Brothers preparing to collect visual imagery aboard the RV Rafael as part of the launch of the MiniSEABOSS while doing work off of Nantucket. The MiniSEABOSS collects samples, photos and video of the seafloor.

Dr. Laura Brothers preparing to collect visual imagery aboard the RV Rafael as part of the launch of the MiniSEABOSS while doing work off of Nantucket. The MiniSEABOSS collects samples, photos and video of the seafloor.

Science crew aboard R/V Marcus G. Langseth.
Science crew aboard R/V Marcus G. Langseth.
Science crew aboard R/V Marcus G. Langseth.
Science crew aboard R/V Marcus G. Langseth.

Science crew aboard R/V Marcus G. Langseth. Ray Sliter (Pacific Coastal and Marine Science Center) and Deb Hutchison (Woods Hole Coastal and Marine Science Center) shown at far left.

Map illustration showing fault lines and direction of tectonic plate movement along a stretch of the Alaskan coastline.
Study region along the Queen Charlotte-Fairweather fault
Study region along the Queen Charlotte-Fairweather fault
Study region along the Queen Charlotte-Fairweather fault

Study region along the Queen Charlotte-Fairweather fault offshore southeastern Alaska. Rectangles show locations of the two USGS-led marine geophysical surveys in May and August 2015. The third cruise was offshore Haida Gwaii, British Columbia, and southern Alaska in September 2015.

Study region along the Queen Charlotte-Fairweather fault offshore southeastern Alaska. Rectangles show locations of the two USGS-led marine geophysical surveys in May and August 2015. The third cruise was offshore Haida Gwaii, British Columbia, and southern Alaska in September 2015.

Illustrated map shows the seafloor off of Alaska, a fault runs through the middle and seafloor features are clearly offset.
Yakobi Sea Valley
Yakobi Sea Valley
Yakobi Sea Valley

Enlarged from previous figure, this map shows a string of basins along the fault and offset of the south wall of the Yakobi Sea Valley. Line A–B marks the location of multichannel seismic-reflection profile.

Enlarged from previous figure, this map shows a string of basins along the fault and offset of the south wall of the Yakobi Sea Valley. Line A–B marks the location of multichannel seismic-reflection profile.

Cross-section illustration showing structure beneath the seafloor with mostly horizontal lines but one clear offset section wher
Multichannel seismic-reflection profile
Multichannel seismic-reflection profile
Multichannel seismic-reflection profile

Multichannel seismic-reflection profile showing sediment layers beneath the seafloor disrupted by the Queen Charlotte-Fairweather fault near Cross Sound. The profile is approximately 16 kilometers across, and it extends approximately 370 meters beneath the seafloor. See related multimedia below, for the location of this profile.

Multichannel seismic-reflection profile showing sediment layers beneath the seafloor disrupted by the Queen Charlotte-Fairweather fault near Cross Sound. The profile is approximately 16 kilometers across, and it extends approximately 370 meters beneath the seafloor. See related multimedia below, for the location of this profile.

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