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Coastal and Marine Hazards and Resources Program images.

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Browse graphic of point cloud data
Browse graphic of point cloud data
Browse graphic of point cloud data
Browse graphic of point cloud data

Browse graphic of point cloud data from low altitude aerial imagery from unmanned aerial system flights over Coast Guard Beach, Eastham, MA

Neil Ganju and Patrick Dickhudt preparing an oceanographic platform to measure wetland sediment transport in Forsythe NWR, NJ
Preparing oceanographic platform in Forsythe NWR, NJ
Preparing oceanographic platform in Forsythe NWR, NJ
Preparing oceanographic platform in Forsythe NWR, NJ

Neil Ganju (standing) and Patrick Dickhudt preparing an oceanographic platform to measure wetland sediment transport in Forsythe NWR, New Jersey

Core Lab Manager, Brian Buczkowski, giving a tour of the Core Lab
Brian Buczkowski, Woods Hole Core Lab Manager giving a tour
Brian Buczkowski, Woods Hole Core Lab Manager giving a tour
Brian Buczkowski, Woods Hole Core Lab Manager giving a tour

Woods Hole Core Lab Manager, Brian Buczkowski,  giving a tour of the lab to local teachers participating in a professional development workshop

Colored shaded-relief bathymetry map of Monterey Canyon and Vicinity, California
Monterey Canyon and Vicinity
Monterey Canyon and Vicinity
Monterey Canyon and Vicinity

Map view. Colored shaded-relief bathymetry map of Monterey Canyon and Vicinity map area, generated from multibeam-echosounder and bathymetric-sidescan data. Colors show depth: reds and oranges indicate shallower areas; purples, deeper areas. Illumination azimuth is 300°, from 45° above horizon.

Map view. Colored shaded-relief bathymetry map of Monterey Canyon and Vicinity map area, generated from multibeam-echosounder and bathymetric-sidescan data. Colors show depth: reds and oranges indicate shallower areas; purples, deeper areas. Illumination azimuth is 300°, from 45° above horizon.

Parameters considered in models for shoreline change
Models for shoreline change
Models for shoreline change
Models for shoreline change

Parameters considered in models for shoreline change, barrier island characteristics, and piping plover habitat availability. Together, these three models allow for forecasts of most likely future barrier island characteristics and piping plover habitat availability given sea-level rise. 

Parameters considered in models for shoreline change, barrier island characteristics, and piping plover habitat availability. Together, these three models allow for forecasts of most likely future barrier island characteristics and piping plover habitat availability given sea-level rise. 

View looks out from a boat with instruments mounted on the side, over the water and in the far distance are snow-capped peaks.
Seafloor mapping in southeastern Alaska
Seafloor mapping in southeastern Alaska
Seafloor mapping in southeastern Alaska

Mount Crillon in the backdrop during a multibeam bathymetry survey of the Queen Charlotte-Fairweather Fault, offshore southeastern Alaska.

man pointing to image on computer screen in an office setting
Geologist explains photo analysis of Calif. coastal cliffs
Geologist explains photo analysis of Calif. coastal cliffs
Geologist explains photo analysis of Calif. coastal cliffs

USGS research geologist Jon Warrick explains how his team applied structure-from-motion analysis to photos from the California Coastal Records Project to measure coastal change. Jon Warrick explains a “difference map” constructed from structure-in-motion data. Red areas indicate loss of material (erosion); blue areas show addition of material (deposition).

USGS research geologist Jon Warrick explains how his team applied structure-from-motion analysis to photos from the California Coastal Records Project to measure coastal change. Jon Warrick explains a “difference map” constructed from structure-in-motion data. Red areas indicate loss of material (erosion); blue areas show addition of material (deposition).

The CMHRP has been conducting scientific investigations at Fire Island in order to protect coastal infrastructure
CMHRP scientific investigations help to protect coastal infrastructure
CMHRP scientific investigations help to protect coastal infrastructure
CMHRP scientific investigations help to protect coastal infrastructure

At Fire Island, estuarine, wetland, coastal, and oceanic processes interact, affecting natural and human communities. The CMHRP has been conducting scientific investigations at Fire Island in order to protect coastal infrastructure.

Four photographs showing people in shallow ocean water, at the coast, on a beach, and in a grassy marsh collecting data.
Equipment used during surveys in Columbia River littoral cell
Equipment used during surveys in Columbia River littoral cell
Gerry Hatcher poses with the camera system he helped create, with all kinds of gadgets and wires in a metal frame.
Gerry Hatcher and Camera System
Gerry Hatcher and Camera System
Gerry Hatcher and Camera System

USGS ocean engineer Gerry Hatcher with the camera system he helped create for recording the precise time and geographic location of each air photo it takes. The system is mounted in the cargo compartment of a Cessna 182R airplane and takes photos through a window cut into a removable cargo door (right).

USGS ocean engineer Gerry Hatcher with the camera system he helped create for recording the precise time and geographic location of each air photo it takes. The system is mounted in the cargo compartment of a Cessna 182R airplane and takes photos through a window cut into a removable cargo door (right).

Vertical steel pipe with a horizontal arm extending from the top and tripod legs anchored by cinder blocks at the bottom.
Beach-monitoring video camera atop hotel in Madeira Beach, Florida
Beach-monitoring video camera atop hotel in Madeira Beach, Florida
Beach-monitoring video camera atop hotel in Madeira Beach, Florida

USGS research oceanographers Jenna Brown and Joe Long installed this video camera atop the Shoreline Island Resort hotel in Madeira Beach, Florida. Starting in February 2017, the camera has recorded video for 17 minutes every hour during daylight hours.

USGS research oceanographers Jenna Brown and Joe Long installed this video camera atop the Shoreline Island Resort hotel in Madeira Beach, Florida. Starting in February 2017, the camera has recorded video for 17 minutes every hour during daylight hours.

A metal frame holding a camera is anchored by concrete blocks on top of a building overlooking a beach on a sunny day
View of a video camera atop a hotel in Madeira Beach, Florida
View of a video camera atop a hotel in Madeira Beach, Florida
View of a video camera atop a hotel in Madeira Beach, Florida

A high resolution digital video camera is installed atop a waterfront hotel at Madeira Beach, Florida, overlooking the Gulf of America coast.

two women stand near a poster under a tent talking to the public
Discussing corals as climate change recorders at an outreach event
Discussing corals as climate change recorders at an outreach event
Discussing corals as climate change recorders at an outreach event

USGS scientists Lauren Toth and Jen Flannery of the St. Petersburg Coastal and Marine Science Center discuss how they study corals to better understand past climate change. The Center participates in the St. Petersburg Science Festival each year. 

Sunset at Sage Lot Pond Salt Marsh Observatory
Sunset at Sage Lot Pond Salt Marsh Observatory
Sunset at Sage Lot Pond Salt Marsh Observatory
Sunset at Sage Lot Pond Salt Marsh Observatory

Sunset at Sage Lot Pond Salt Marsh Observatory marks the end of 16 hour field effort. During this sampling, USGS researchers captured the exchange of materials between the marsh and estuary. This field site provides infrastructure to keep sensors deployed nearly year-round so changes across seasons and extreme events, such as large storms, are captured.

Sunset at Sage Lot Pond Salt Marsh Observatory marks the end of 16 hour field effort. During this sampling, USGS researchers captured the exchange of materials between the marsh and estuary. This field site provides infrastructure to keep sensors deployed nearly year-round so changes across seasons and extreme events, such as large storms, are captured.

marsh platform is completely submerged during a spring tide
High Tide
High Tide
High Tide

High tides are one challenge of working in tidal wetlands! Here the marsh platform is completely submerged during a spring tide. The boardwalk, which scientists use to access the site, is also under water during this extreme high tide, while the solar panels powering some instruments remain dry.

High tides are one challenge of working in tidal wetlands! Here the marsh platform is completely submerged during a spring tide. The boardwalk, which scientists use to access the site, is also under water during this extreme high tide, while the solar panels powering some instruments remain dry.

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