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St. Petersburg Coastal and Marine Science Center images.

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A woman sits at a desk in a laboratory looking into a microscope.
Optical microscope for picking forams
Optical microscope for picking forams
Optical microscope for picking forams

Katie Krueger, a summer intern at the USGS St. Petersburg Coastal and Marine Science Center in St. Petersburg, Florida, uses an optical microscope to pick out foraminifera from Arctic Ocean sediment samples.

Katie Krueger, a summer intern at the USGS St. Petersburg Coastal and Marine Science Center in St. Petersburg, Florida, uses an optical microscope to pick out foraminifera from Arctic Ocean sediment samples.

Three women standing arm-in-arm in a hallway and smile for the camera.
Summer internships at St. Pete
Summer internships at St. Pete
Summer internships at St. Pete

Summer intern Katie Krueger (center) and her USGS supervisors: research oceanographer Lisa Robbins (left) and research geologist Jennifer Miselis. Because of her stellar academics and volleyball skills, Krueger was notified of her acceptance to Virginia Tech early in her junior year.

Summer intern Katie Krueger (center) and her USGS supervisors: research oceanographer Lisa Robbins (left) and research geologist Jennifer Miselis. Because of her stellar academics and volleyball skills, Krueger was notified of her acceptance to Virginia Tech early in her junior year.

X-radiograph and coral image of an Orbicella faveolata
X-radiograph and coral image of an Orbicella faveolata
X-radiograph and coral image of an Orbicella faveolata
X-radiograph and coral image of an Orbicella faveolata

An x-radiograph (top) and photograph (bottom) of an Orbicella faveolata specimen collected from Dry Tortugas National Park in 2008. Note the annual banding couplets of high-and-low density bands. Figure modified from Flannery and Poore, 2013.

An x-radiograph (top) and photograph (bottom) of an Orbicella faveolata specimen collected from Dry Tortugas National Park in 2008. Note the annual banding couplets of high-and-low density bands. Figure modified from Flannery and Poore, 2013.

Photo of the seafloor in Block Island Sound, Rhode Island
Photo of the seafloor in Block Island Sound, Rhode Island
Photo of the seafloor in Block Island Sound, Rhode Island
Photo of the seafloor in Block Island Sound, Rhode Island

Photo of the seafloor in Block Island Sound showing a rock crab and several shrimp on a boulder that is covered with bryozoans. The photo was collected in support of research and management activities (e.g., wind farms and fisheries) along the Rhode Island inner continental shelf.

Photo of the seafloor in Block Island Sound showing a rock crab and several shrimp on a boulder that is covered with bryozoans. The photo was collected in support of research and management activities (e.g., wind farms and fisheries) along the Rhode Island inner continental shelf.

An underwater diver works on a block that has instruments anchored to it, on a coral reef.
Coral calcification station
Coral calcification station
Coral calcification station

SCUBA diver working on a calcification station at Fowey Rocks, Biscayne National Park, Florida.

SCUBA diver working on a calcification station at Fowey Rocks, Biscayne National Park, Florida.

USGS diver taking a core of a 100-year-old coral in USVI
USGS diver taking a core of a 100-year-old coral in USVI
USGS diver taking a core of a 100-year-old coral in USVI
USGS diver taking a core of a 100-year-old coral in USVI

USGS diver taking a core of a 100-year-old coral to allow reconstruction of past ocean temperatures in St. Thomas, U.S. Virgin Islands.

Survey vessel in Barnegat Bay, NJ during a beautiful sunset
Survey vessel in Barnegat Bay, NJ during a beautiful sunset
Survey vessel in Barnegat Bay, NJ during a beautiful sunset
Survey vessel in Barnegat Bay, NJ during a beautiful sunset

Assessing how storms move sediment during storms provides coastal scientists and managers the information they need to keep coastal communities safe and prosperous. And, lucky for us, provides many opportunities to see great coastal sunsets!

Assessing how storms move sediment during storms provides coastal scientists and managers the information they need to keep coastal communities safe and prosperous. And, lucky for us, provides many opportunities to see great coastal sunsets!

A view from a boat shows a house that was moved into estuary waters during Hurricane Sandy.
Hurricane Sandy moved a house from barrier island to estuary
Hurricane Sandy moved a house from barrier island to estuary
Hurricane Sandy moved a house from barrier island to estuary

Hurricane Sandy moved a house from barrier island to estuary, in this case into Barnegat Bay, NJ. Waves from extreme storms do the same with barrier island sediment.

Debris from Hurricane Sandy is piled up behind an artificial dune, built to protect the island from the winter storm season
Debris from Hurricane Sandy is piled up behind an artificial dune
Debris from Hurricane Sandy is piled up behind an artificial dune
Debris from Hurricane Sandy is piled up behind an artificial dune

Debris from Hurricane Sandy (Seaside Heights, NJ) is piled up behind an artificial dune in order to protect island infrastructure from the subsequent winter storm season. Like storms, humans change coasts too.

A scuba diver underwater with scientific equipment
Legna Torres-Garcia
Legna Torres-Garcia
Legna Torres-Garcia

USGS Graduate Research Assistant Legna Torres-Garcia installs a temperature logger on a coral reef in Dry Tortugas National Park. She and her team deployed a vertical array with temperature loggers every 1m from the seabed to near-surface with the goal to capture any changes in temperature through time and across depth.

USGS Graduate Research Assistant Legna Torres-Garcia installs a temperature logger on a coral reef in Dry Tortugas National Park. She and her team deployed a vertical array with temperature loggers every 1m from the seabed to near-surface with the goal to capture any changes in temperature through time and across depth.

. Houses, cars, and a street in Seaside Heights, New Jersey, covered in beach sand
Seaside Heights, NJ after Hurricane Sandy
Seaside Heights, NJ after Hurricane Sandy
Seaside Heights, NJ after Hurricane Sandy

Hurricane Sandy struck the New Jersey shore October 29–31, 2012. Houses, cars, and a street in Seaside Heights, New Jersey, were covered in beach sand after the hurricane's storm tide receded

Photo of Sunset Beach, Florida, during tropical storm Colin in June 2016
Photo of Sunset Beach, Florida, during tropical storm Colin, June 2016
Photo of Sunset Beach, Florida, during tropical storm Colin, June 2016
Photo of Sunset Beach, Florida, during tropical storm Colin, June 2016

Photo of Sunset Beach, Florida, during tropical storm Colin in June 2016. The storm resulted in large waves and elevated water levels that caused erosion in this area, as can be seen in the scarp forming at the vegetation line. CMHRP researchers surveyed the elevation of the beach before and after the storm to quantify the storm's impacts.

Photo of Sunset Beach, Florida, during tropical storm Colin in June 2016. The storm resulted in large waves and elevated water levels that caused erosion in this area, as can be seen in the scarp forming at the vegetation line. CMHRP researchers surveyed the elevation of the beach before and after the storm to quantify the storm's impacts.

Underwater, a fish swims past a post that is covered in anemones and corals, 2 laser beams are pointed at a coral for scale.
Corals and anemones in Mississippi Canyon
Corals and anemones in Mississippi Canyon
Corals and anemones in Mississippi Canyon

Large Lophelia colonies and numerous anemones at a depth of about 1,500 feet in Mississippi Canyon. Red laser beams, projected from a remotely operated vehicle, represent a separation of 10 centimeters (about 4 inches). A western roughy is seen to the left of the structure.

Large Lophelia colonies and numerous anemones at a depth of about 1,500 feet in Mississippi Canyon. Red laser beams, projected from a remotely operated vehicle, represent a separation of 10 centimeters (about 4 inches). A western roughy is seen to the left of the structure.

Aerial images of the wilderness breach
Aerial images of the wilderness breach
Aerial images of the wilderness breach
Aerial images of the wilderness breach

Aerial images of the wilderness breach: a) Aerial photograph taken several days after Hurricane Sandy (photo credit: NOAA); b) Aerial mosaic of the breach in June 2015 showing the location of erosion on the ocean side of the breach and deposition that results in the seasonal formation of a spit.

Aerial images of the wilderness breach: a) Aerial photograph taken several days after Hurricane Sandy (photo credit: NOAA); b) Aerial mosaic of the breach in June 2015 showing the location of erosion on the ocean side of the breach and deposition that results in the seasonal formation of a spit.

black tape cap and clear bottle
Niskin bottle
Niskin bottle
Niskin bottle

Black tape is stretched across the stopper of the 'Niskin' bottle and secured to form a positive pressure seal.

Black tape is stretched across the stopper of the 'Niskin' bottle and secured to form a positive pressure seal.

Paragorgia arborea, commonly known as "bubblegum coral" for its pink color and large polyps.
Paragorgia arborea
Paragorgia arborea
Paragorgia arborea

Paragorgia arborea, commonly known as "bubblegum coral" for its pink color and large polyps.

Paragorgia arborea, commonly known as "bubblegum coral" for its pink color and large polyps.

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