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Image: Young Atlantic Salmon Reared at the USGS Tunison Lab in Cortland, N.Y.
Young Atlantic Salmon Reared at the USGS Tunison Lab in Cortland, N.Y.
Young Atlantic Salmon Reared at the USGS Tunison Lab in Cortland, N.Y.
Young Atlantic Salmon Reared at the USGS Tunison Lab in Cortland, N.Y.

Thousands of young Atlantic salmon are being released into Salmon River in an effort to restore this diminished Lake Ontario fish population, extending the sport fishing season by at least two months in Oswego County, N.Y.

Thousands of young Atlantic salmon are being released into Salmon River in an effort to restore this diminished Lake Ontario fish population, extending the sport fishing season by at least two months in Oswego County, N.Y.

Image: Atlantic Salmon Released into Beaverdam Brook
Atlantic Salmon Released into Beaverdam Brook
Atlantic Salmon Released into Beaverdam Brook
Atlantic Salmon Released into Beaverdam Brook

USGS employee Marisa Lubeck releases the day's last young Atlantic salmon into Beaverdam Brook in Altmar, N.Y.

Thousands of young Atlantic salmon are being released into Salmon River in an effort to restore this diminished Lake Ontario fish population, extending the sport fishing season by at least two months in Oswego County, N.Y.

USGS employee Marisa Lubeck releases the day's last young Atlantic salmon into Beaverdam Brook in Altmar, N.Y.

Thousands of young Atlantic salmon are being released into Salmon River in an effort to restore this diminished Lake Ontario fish population, extending the sport fishing season by at least two months in Oswego County, N.Y.

Image: Salmon Are Carefully Released Using Buckets
Salmon Are Carefully Released Using Buckets
Salmon Are Carefully Released Using Buckets
Salmon Are Carefully Released Using Buckets

Thousands of young Atlantic salmon are being released into Salmon River in an effort to restore this diminished Lake Ontario fish population, extending the sport fishing season by at least two months in Oswego County, N.Y.

Thousands of young Atlantic salmon are being released into Salmon River in an effort to restore this diminished Lake Ontario fish population, extending the sport fishing season by at least two months in Oswego County, N.Y.

Image: Salmon River Fish Hatchery: Home Base for Released Salmon
Salmon River Fish Hatchery: Home Base for Released Salmon
Salmon River Fish Hatchery: Home Base for Released Salmon
Salmon River Fish Hatchery: Home Base for Released Salmon

Salmon that have been reared and released at the NY State Salmon River Fish Hatchery imprint on the Hatchery waters, often returning to visit the Hatchery after they are released.

Salmon that have been reared and released at the NY State Salmon River Fish Hatchery imprint on the Hatchery waters, often returning to visit the Hatchery after they are released.

Image: Scientists Release Altantic Salmon into Beaverdam Brook
Scientists Release Altantic Salmon into Beaverdam Brook
Scientists Release Altantic Salmon into Beaverdam Brook
Scientists Release Altantic Salmon into Beaverdam Brook

USGS Tunison Lab scientists Rich Chiavelli (left) and Emily Waldt (middle) hand a bucketful of young Atlantic salmon to Dan Bishop (right) of the New York State Department of Environmental Conservation for release into Beaverdam Brook at the state's Salmon River Fish Hatchery.

USGS Tunison Lab scientists Rich Chiavelli (left) and Emily Waldt (middle) hand a bucketful of young Atlantic salmon to Dan Bishop (right) of the New York State Department of Environmental Conservation for release into Beaverdam Brook at the state's Salmon River Fish Hatchery.

Image: Young Atlantic Salmon Reared at the USGS Tunison Lab in Cortland, N.Y.
Young Atlantic Salmon Reared at the USGS Tunison Lab in Cortland, N.Y.
Young Atlantic Salmon Reared at the USGS Tunison Lab in Cortland, N.Y.
Young Atlantic Salmon Reared at the USGS Tunison Lab in Cortland, N.Y.

Thousands of young Atlantic salmon are being released into Salmon River in an effort to restore this diminished Lake Ontario fish population, extending the sport fishing season by at least two months in Oswego County, N.Y.

Thousands of young Atlantic salmon are being released into Salmon River in an effort to restore this diminished Lake Ontario fish population, extending the sport fishing season by at least two months in Oswego County, N.Y.

Image: Salmon River Fish Hatchery: Home Base for Released Salmon
Salmon River Fish Hatchery: Home Base for Released Salmon
Salmon River Fish Hatchery: Home Base for Released Salmon
Salmon River Fish Hatchery: Home Base for Released Salmon

Salmon that have been reared and released at the NY State Salmon River Fish Hatchery imprint on the Hatchery waters, often returning to visit the Hatchery after they are released.

Salmon that have been reared and released at the NY State Salmon River Fish Hatchery imprint on the Hatchery waters, often returning to visit the Hatchery after they are released.

Image: Salmon Are Carefully Released Using Buckets
Salmon Are Carefully Released Using Buckets
Salmon Are Carefully Released Using Buckets
Salmon Are Carefully Released Using Buckets

Thousands of young Atlantic salmon are being released into Salmon River in an effort to restore this diminished Lake Ontario fish population, extending the sport fishing season by at least two months in Oswego County, N.Y.

Thousands of young Atlantic salmon are being released into Salmon River in an effort to restore this diminished Lake Ontario fish population, extending the sport fishing season by at least two months in Oswego County, N.Y.

Image: A Rainbow Trout Rests Among Substrate in Panther Creek
A Rainbow Trout Rests Among Substrate in Panther Creek
A Rainbow Trout Rests Among Substrate in Panther Creek
A Rainbow Trout Rests Among Substrate in Panther Creek

A rainbow trout rests among substrate in Panther Creek upstream of Big Deer Creek, central Idaho. Panther Creek was severely damaged by heavy metals released from mining and milling activities at the former Blackbird Mine. USGS and other scientists compiled a 30-year record of recovery of the stream’s fish and macroinvertebrate populations.

A rainbow trout rests among substrate in Panther Creek upstream of Big Deer Creek, central Idaho. Panther Creek was severely damaged by heavy metals released from mining and milling activities at the former Blackbird Mine. USGS and other scientists compiled a 30-year record of recovery of the stream’s fish and macroinvertebrate populations.

Image: Panther Creek Upstream of Big Deer Creek, central Idaho
Panther Creek Upstream of Big Deer Creek, central Idaho
Panther Creek Upstream of Big Deer Creek, central Idaho
Panther Creek Upstream of Big Deer Creek, central Idaho

Panther Creek was severely damaged by heavy metals released from mining and milling activities at the former Blackbird Mine. USGS and other scientists compiled a 30-year record of recovery of the stream’s fish and macroinvertebrate populations.

Panther Creek was severely damaged by heavy metals released from mining and milling activities at the former Blackbird Mine. USGS and other scientists compiled a 30-year record of recovery of the stream’s fish and macroinvertebrate populations.

Image: A Rainbow Trout Rests Among Cobble Substrate in Panther Creek
A Rainbow Trout Rests Among Cobble Substrate in Panther Creek
A Rainbow Trout Rests Among Cobble Substrate in Panther Creek
A Rainbow Trout Rests Among Cobble Substrate in Panther Creek

A rainbow trout rests among cobble substrate in Panther Creek downstream of Big Deer Creek, central Idaho. Panther Creek was severely damaged by heavy metals released from mining and milling activities at the former Blackbird Mine, and water quality in this section of the stream was acutely lethal to fish as late as 1985.

A rainbow trout rests among cobble substrate in Panther Creek downstream of Big Deer Creek, central Idaho. Panther Creek was severely damaged by heavy metals released from mining and milling activities at the former Blackbird Mine, and water quality in this section of the stream was acutely lethal to fish as late as 1985.

Image: Photographing Rock Fall Triggered by 2011 Virginia Earthquake
Photographing Rock Fall Triggered by 2011 Virginia Earthquake
Photographing Rock Fall Triggered by 2011 Virginia Earthquake
Photographing Rock Fall Triggered by 2011 Virginia Earthquake

USGS geologist Ed Harp photographing a small rock fall from a road cut along the Blue Ridge Parkway north of Roanoke, Virginia. This is part of a study documenting landslides triggered from the 2011 magnitude 5.8 earthquake in Virginia. Green grass beneath the rock fragments indicates that the rock fall is fresh and probably was triggered by the earthquake

USGS geologist Ed Harp photographing a small rock fall from a road cut along the Blue Ridge Parkway north of Roanoke, Virginia. This is part of a study documenting landslides triggered from the 2011 magnitude 5.8 earthquake in Virginia. Green grass beneath the rock fragments indicates that the rock fall is fresh and probably was triggered by the earthquake

Image: Multichannel Seismic Airgun Sled being Deployed off CCGS Louis S. St-Laurent
Multichannel seismic sled being deployed off ship
Multichannel seismic sled being deployed off ship
Multichannel seismic sled being deployed off ship

The airgun sled is painted orange and suspended from the A-frame.  The three airguns are suspended beneath the sled. The multichannel digital streamer (yellow cable going into the water from the sled) is towed from the the weighted sled to keep it under the ice. This photo shows the number of crew required to safely deploy the airgun sled.

The airgun sled is painted orange and suspended from the A-frame.  The three airguns are suspended beneath the sled. The multichannel digital streamer (yellow cable going into the water from the sled) is towed from the the weighted sled to keep it under the ice. This photo shows the number of crew required to safely deploy the airgun sled.

Image: USCGC Healy in Heavy Ice Passing CCGS Louis S. St-Laurent
USCGC Healy in Heavy Ice Passing CCGS Louis S. St-Laurent
USCGC Healy in Heavy Ice Passing CCGS Louis S. St-Laurent
USCGC Healy in Heavy Ice Passing CCGS Louis S. St-Laurent

USCG Healy is circling to pass CCGS Louis in order to break her free from the ice. The joint field program utilized two icebreakers so that the seismic vessel, with gear in the water behind the ship, could be broken free when the ice prevented her forward progress.

USCG Healy is circling to pass CCGS Louis in order to break her free from the ice. The joint field program utilized two icebreakers so that the seismic vessel, with gear in the water behind the ship, could be broken free when the ice prevented her forward progress.

Image: Coastline Breach
Coastline Breach
Coastline Breach
Coastline Breach

A breach in the coastline of Rodanthe, North Carolina, caused by Hurricane Irene in 2011.  Repeated storm impacts, combined with sea level rise, make the development and improvement of models that help forecast coastal change very important to planners working to build more resilient communities

A breach in the coastline of Rodanthe, North Carolina, caused by Hurricane Irene in 2011.  Repeated storm impacts, combined with sea level rise, make the development and improvement of models that help forecast coastal change very important to planners working to build more resilient communities

Image: USCGC Healy, Circling and Passing by the Stern of CCGS Louis S. St-Laurent
USCGC Healy, Circling and Passing by the Stern of CCGS Louis S. St-Laurent
USCGC Healy, Circling and Passing by the Stern of CCGS Louis S. St-Laurent
USCGC Healy, Circling and Passing by the Stern of CCGS Louis S. St-Laurent

USCG Healy is circling to pass CCGS Louis in order to break her free from the ice.  The joint field program utilized two icebreakers so that the seismic vessel, with gear in the water behind the ship, could be broken free when the ice prevented her forward progress.

USCG Healy is circling to pass CCGS Louis in order to break her free from the ice.  The joint field program utilized two icebreakers so that the seismic vessel, with gear in the water behind the ship, could be broken free when the ice prevented her forward progress.

Image: Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene

During hurricanes the USGS deploys storm-surge monitoring instruments along the coasts, sounds, and bays in impacted areas to gauge how high hurricanes push water in rivers, bays and other areas. The sensors are crucial for forecasting future storms and assessing hurricane damage.

During hurricanes the USGS deploys storm-surge monitoring instruments along the coasts, sounds, and bays in impacted areas to gauge how high hurricanes push water in rivers, bays and other areas. The sensors are crucial for forecasting future storms and assessing hurricane damage.

Image: Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene

During hurricanes the USGS deploys storm-surge monitoring instruments along the coasts, sounds, and bays in impacted areas to gauge how high hurricanes push water in rivers, bays and other areas. The sensors are crucial for forecasting future storms and assessing hurricane damage.

During hurricanes the USGS deploys storm-surge monitoring instruments along the coasts, sounds, and bays in impacted areas to gauge how high hurricanes push water in rivers, bays and other areas. The sensors are crucial for forecasting future storms and assessing hurricane damage.

Image: Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene

During hurricanes the USGS deploys storm-surge monitoring instruments along the coasts, sounds, and bays in impacted areas to gauge how high hurricanes push water in rivers, bays and other areas. The sensors are crucial for forecasting future storms and assessing hurricane damage.

During hurricanes the USGS deploys storm-surge monitoring instruments along the coasts, sounds, and bays in impacted areas to gauge how high hurricanes push water in rivers, bays and other areas. The sensors are crucial for forecasting future storms and assessing hurricane damage.

Image: Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene
Storm Surge Sensor During Hurricane Irene

During hurricanes the USGS deploys storm-surge monitoring instruments along the coasts, sounds, and bays in impacted areas to gauge how high hurricanes push water in rivers, bays and other areas. The sensors are crucial for forecasting future storms and assessing hurricane damage.

During hurricanes the USGS deploys storm-surge monitoring instruments along the coasts, sounds, and bays in impacted areas to gauge how high hurricanes push water in rivers, bays and other areas. The sensors are crucial for forecasting future storms and assessing hurricane damage.

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