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Images

Images below come from a wide variety of USGS science activities in the Northeast Region. Science Center staff showcase what we do, who we are, and where we work conducting science that inform decision makers and addresses societal needs. 

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Scouting out high water marks after blizzard
Scouting out high water marks after blizzard
Scouting out high water marks after blizzard
Scouting out high water marks after blizzard

New England WSC Physical Scientist Andy Massey scouting out high water marks associated with the blizzard of January 2018. Houghs Neck Maritime Center, Quincy, MA.

New England WSC Physical Scientist Andy Massey scouting out high water marks associated with the blizzard of January 2018. Houghs Neck Maritime Center, Quincy, MA.

​​​​​​​Jonathan Cohl holding a piece of ice from Delaware River at Frenchtown, NJ
​​​​​​​Jonathan Cohl holding a piece of ice at Delaware River
​​​​​​​Jonathan Cohl holding a piece of ice at Delaware River
​​​​​​​Jonathan Cohl holding a piece of ice at Delaware River

Northeast Region Photo Contest Winner | March 2019 | People
Jonathan Cohl holding a piece of ice from Delaware River at Frenchtown, NJ

orange sled loaded with bags of equipment on snow covered path in forest
Field Photo Friday Winner for April 2018
Field Photo Friday Winner for April 2018
Field Photo Friday Winner for April 2018

Transporting equipment used for maintenance of groundwater well CT2498 in Perrysburg, New York 

Image showing mangroves that have lost all their leaves and a berm that is significantly thinner following Hurricane Irma. 
Berm at Jim Foot Key, Florida (2018)
Berm at Jim Foot Key, Florida (2018)
Berm at Jim Foot Key, Florida (2018)

In Photo: The red circle indicates the same position as shown in the April 2014 photo.  The mangroves have lost all their leaves and the berm is significantly thinner following the storm. 

In Photo: The red circle indicates the same position as shown in the April 2014 photo.  The mangroves have lost all their leaves and the berm is significantly thinner following the storm. 

USGS personnel on the fantail of the R/V Savannah
USGS Team Work!
USGS Team Work!
USGS Team Work!

Sediment transport team members attach a quick-release to the top of a bottom lander prior to deployment

Sediment transport team members attach a quick-release to the top of a bottom lander prior to deployment

 An instrumented bottom lander platform is lowered off the stern of the research vessel
Oceanographic Equipment Deployment
Oceanographic Equipment Deployment
USGS personnel working with chains on the deck of the R/V Savannah
Assembly of chains, shackles, and links
Assembly of chains, shackles, and links
Assembly of chains, shackles, and links

 Sediment transport team members assemble chain, shackles and pear links that are are attached to the anchor and floats as part of deploying a mooring.

Yellow buoy in the water
Buoy, Buoy
Buoy, Buoy
Buoy, Buoy

The buoy that measures meteorological conditions at the site after deployment.

A woman in a purple shirt holds a controller and explains the UAS sitting on the ground  to a man in a suit
USGS pilot and Senate Pro Tempore discuss the use of UASs
USGS pilot and Senate Pro Tempore discuss the use of UASs
USGS pilot and Senate Pro Tempore discuss the use of UASs

USGS pilot Sandy Brosnahan and Senate Pro Tempore Marc Pacheco discuss the use of Umanned Aerial Systems (UASs, also known as drones) to collect data in coastal environments.

Map of the NE US coast showing several types of data collected by NOAA and the USGS, with explanatory insets
Map shows hill-shaded bathymetric, backscatter, and photographic data
Map shows hill-shaded bathymetric, backscatter, and photographic data
Map shows hill-shaded bathymetric, backscatter, and photographic data

Hill-shaded bathymetric, backscatter, and photographic data collected by NOAA and the USGS. Backscatter data give indications of seafloor character. In general, low-backscatter intensity (blue) corresponds to finer-grained material, whereas high-backscatter intensity (orange) corresponds to coarser substrate.

Hill-shaded bathymetric, backscatter, and photographic data collected by NOAA and the USGS. Backscatter data give indications of seafloor character. In general, low-backscatter intensity (blue) corresponds to finer-grained material, whereas high-backscatter intensity (orange) corresponds to coarser substrate.

Map shows survey lines of the inner continental shelf of the Delmarva Peninsula in green, and data from partners in blue
The USGS conducted surveys on the inner continental shelf of the Delma
The USGS conducted surveys on the inner continental shelf of the Delma
The USGS conducted surveys on the inner continental shelf of the Delma

The USGS conducted surveys on the inner continental shelf of the Delmarva Peninsula (shown in green) to complement related datasets previously collected in the area by partners NOAA and BOEM. The inset map shows location of the study area.

The USGS conducted surveys on the inner continental shelf of the Delmarva Peninsula (shown in green) to complement related datasets previously collected in the area by partners NOAA and BOEM. The inset map shows location of the study area.

Images of Matanzas, Florida, from before and after Hurricane Matthew, and DEM showing the associated change
Orthomosaic and DEM images of Matanzas, Florida
Orthomosaic and DEM images of Matanzas, Florida
Orthomosaic and DEM images of Matanzas, Florida

Orthomosaic images of Matanzas, Florida, from (a) before and (b) after Hurricane Matthew, and (c) a digital elevation model (DEM) showing the associated topographic change. Note, these results were produced by applying Structure-from-Motion (SfM) to NOAA oblique photographs, but similar results can be obtained using UAS aerial imagery.

Orthomosaic images of Matanzas, Florida, from (a) before and (b) after Hurricane Matthew, and (c) a digital elevation model (DEM) showing the associated topographic change. Note, these results were produced by applying Structure-from-Motion (SfM) to NOAA oblique photographs, but similar results can be obtained using UAS aerial imagery.

A man stands on the edge of a low cliff severely undercut by the ocean. Closer to the camera a chunk of coast has fallen off
Eroding permafrost on Alaska’s Arctic Coast
Eroding permafrost on Alaska’s Arctic Coast
Eroding permafrost on Alaska’s Arctic Coast

Eroding permafrost on Alaska’s Arctic Coast. Inundation of permafrost like this produced subsea permafrost

Two maps; the left hand one shows brown land, blue water, and red arrows. The right hand one shows colored survey tracklines
Maps with key features and shaded relief of the study area
Maps with key features and shaded relief of the study area
Maps with key features and shaded relief of the study area

Left: Key features in and around the Gulf of Alaska. A black rectangle outlines our 2016 study area along the Queen Charlotte-Fairweather fault. Red arrows indicate relative tectonic plate motions. Right: A shaded relief map of the 2016 study area. Rainbow colors show seafloor depths acquired by the USGS in 2015 and 2016. Red indicates shallower depths.

Left: Key features in and around the Gulf of Alaska. A black rectangle outlines our 2016 study area along the Queen Charlotte-Fairweather fault. Red arrows indicate relative tectonic plate motions. Right: A shaded relief map of the 2016 study area. Rainbow colors show seafloor depths acquired by the USGS in 2015 and 2016. Red indicates shallower depths.

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