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Pacific Coastal and Marine Science Center videos.

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Image of a deep-sea sulfide mound at Escanaba Trough with the text "Characterizing organic carbon at Escanaba Trough" Characterizing organic carbon at Escanaba Trough
Characterizing organic carbon at Escanaba Trough
Characterizing organic carbon at Escanaba Trough

The global ocean is a significant carbon sink, absorbing about a third of all atmospheric carbon dioxide (CO2) emissions (Gruber et al., 2019).

Image of a deep-sea sulfide mound at Escanaba Trough with the text "Characterizing organic carbon at Escanaba Trough" Characterizing organic carbon at Escanaba Trough (AD)
Characterizing organic carbon at Escanaba Trough (AD)
Characterizing organic carbon at Escanaba Trough (AD)

The global ocean is a significant carbon sink, absorbing about a third of all atmospheric carbon dioxide (CO2) emissions (Gruber et al., 2019).

Aerial image of a California beach with text reading "Shoreline Seasonality of California's Beaches" Shoreline Seasonality of California's Beaches
Shoreline Seasonality of California's Beaches
Shoreline Seasonality of California's Beaches

Most of the world’s beaches have regular cycles of erosion and recovery, but new USGS research is showing that these cycles may be considerably different from common perceptions. 

Most of the world’s beaches have regular cycles of erosion and recovery, but new USGS research is showing that these cycles may be considerably different from common perceptions. 

Aerial image of a California beach with text reading "Shoreline Seasonality of California's Beaches" Shoreline Seasonality of California's Beaches (AD)
Shoreline Seasonality of California's Beaches (AD)
Shoreline Seasonality of California's Beaches (AD)

Most of the world’s beaches have regular cycles of erosion and recovery, but new USGS research is showing that these cycles may be considerably different from common perceptions. 

Most of the world’s beaches have regular cycles of erosion and recovery, but new USGS research is showing that these cycles may be considerably different from common perceptions. 

Coral on a cinderblock and a scuba diver on a coral reef Hybrid coral reef restoration: A cost-effective, nature-based solution to protect people and property (AD)
Hybrid coral reef restoration: A cost-effective, nature-based solution to protect people and property (AD)
Hybrid coral reef restoration: A cost-effective, nature-based solution to protect people and property (AD)

Coral reef restoration can protect hundreds of millions of dollars of coastal property and business activity annually from storm-driven flooding.

It can protect thousands of people, especially children, the elderly, minorities, and those below the poverty line. Thus, coral reef restoration is a mechanism to provide environmental equity.

Coral reef restoration can protect hundreds of millions of dollars of coastal property and business activity annually from storm-driven flooding.

It can protect thousands of people, especially children, the elderly, minorities, and those below the poverty line. Thus, coral reef restoration is a mechanism to provide environmental equity.

Coral on a cinderblock and a scuba diver on a coral reef (Spanish captions) Hybrid coral reef restoration: A cost-effective, nature-based solution to protect people and property
(Spanish captions) Hybrid coral reef restoration: A cost-effective, nature-based solution to protect people and property
(Spanish captions) Hybrid coral reef restoration: A cost-effective, nature-based solution to protect people and property

Coral reef restoration can protect hundreds of millions of dollars of coastal property and business activity annually from storm-driven flooding.

It can protect thousands of people, especially children, the elderly, minorities, and those below the poverty line. Thus, coral reef restoration is a mechanism to provide environmental equity.

Coral reef restoration can protect hundreds of millions of dollars of coastal property and business activity annually from storm-driven flooding.

It can protect thousands of people, especially children, the elderly, minorities, and those below the poverty line. Thus, coral reef restoration is a mechanism to provide environmental equity.

Coral on a cinderblock and a scuba diver on a coral reef Hybrid coral reef restoration: A cost-effective, nature-based solution to protect people and property
Hybrid coral reef restoration: A cost-effective, nature-based solution to protect people and property
Hybrid coral reef restoration: A cost-effective, nature-based solution to protect people and property

Coral reef restoration can protect hundreds of millions of dollars of coastal property and business activity annually from storm-driven flooding.

It can protect thousands of people, especially children, the elderly, minorities, and those below the poverty line. Thus, coral reef restoration is a mechanism to provide environmental equity.

Coral reef restoration can protect hundreds of millions of dollars of coastal property and business activity annually from storm-driven flooding.

It can protect thousands of people, especially children, the elderly, minorities, and those below the poverty line. Thus, coral reef restoration is a mechanism to provide environmental equity.

Elwha River Mouth flyover and timelapse cover image Elwha River Mouth virtual flyover and timelapse
Elwha River Mouth virtual flyover and timelapse
Elwha River Mouth virtual flyover and timelapse

This PlaneCam video was produced by developing animation tracklines in ArcGlobe, using imagery from PlaneCam flights.

This PlaneCam video was produced by developing animation tracklines in ArcGlobe, using imagery from PlaneCam flights.

Cover image for timelapse at Lake Mills Delta, Elwha River, on the Olympic Peninsula in Washington Lake Mills Delta timelapse
Lake Mills Delta timelapse
Lake Mills Delta timelapse

Timelapsed photo data is sequenced at about 1 pixel-averaged frame per day, meaning that all of the images from a given day are combined, and the RGB values for a given x/y location on the image are the average of every RGB value for that location for that day. 

Timelapsed photo data is sequenced at about 1 pixel-averaged frame per day, meaning that all of the images from a given day are combined, and the RGB values for a given x/y location on the image are the average of every RGB value for that location for that day. 

Cover image for timelapse at the Elwha River Mouth on the Olympic Peninsula in Washington Elwha River Mouth timelapse
Elwha River Mouth timelapse
Elwha River Mouth timelapse

This PlaneCam video was produced by developing animation tracklines in ArcGlobe, using imagery from PlaneCam flights.

This PlaneCam video was produced by developing animation tracklines in ArcGlobe, using imagery from PlaneCam flights.

Cover image for timelapse at Glines Canyon Dam, Elwha River, on the Olympic Peninsula in Washington Glines Canyon Dam timelapse
Glines Canyon Dam timelapse
Glines Canyon Dam timelapse

Timelapsed photo data is sequenced at about 1 pixel-averaged frame per day, meaning that all of the images from a given day are combined, and the RGB values for a given x/y location on the image are the average of every RGB value for that location for that day. 

Timelapsed photo data is sequenced at about 1 pixel-averaged frame per day, meaning that all of the images from a given day are combined, and the RGB values for a given x/y location on the image are the average of every RGB value for that location for that day. 

Cover image for timelapse at Lake Aldwell Delta, Elwha River, on the Olympic Peninsula in Washington Lake Aldwell Delta timelapse
Lake Aldwell Delta timelapse
Lake Aldwell Delta timelapse

Timelapsed photo data is sequenced at about 1 pixel-averaged frame per day, meaning that all of the images from a given day are combined, and the RGB values for a given x/y location on the image are the average of every RGB value for that location for that day. 

Timelapsed photo data is sequenced at about 1 pixel-averaged frame per day, meaning that all of the images from a given day are combined, and the RGB values for a given x/y location on the image are the average of every RGB value for that location for that day. 

Cover image for timelapse at Lower Lake Aldwell, Elwha River, on the Olympic Peninsula in Washington Lower Lake Aldwell timelapse
Lower Lake Aldwell timelapse
Lower Lake Aldwell timelapse

Timelapsed photo data is sequenced at about 1 pixel-averaged frame per day, meaning that all of the images from a given day are combined, and the RGB values for a given x/y location on the image are the average of every RGB value for that location for that day. 

Timelapsed photo data is sequenced at about 1 pixel-averaged frame per day, meaning that all of the images from a given day are combined, and the RGB values for a given x/y location on the image are the average of every RGB value for that location for that day. 

Cover image for timelapse at Former Lake Mills, Elwha River, on the Olympic Peninsula in Washington Former Lake Mills timelapse
Former Lake Mills timelapse
Former Lake Mills timelapse

Timelapsed photo data is sequenced at about 1 pixel-averaged frame per day, meaning that all of the images from a given day are combined, and the RGB values for a given x/y location on the image are the average of every RGB value for that location for that day. 

Timelapsed photo data is sequenced at about 1 pixel-averaged frame per day, meaning that all of the images from a given day are combined, and the RGB values for a given x/y location on the image are the average of every RGB value for that location for that day. 

Cover image for sediment core lab video, showing core-lab walk-in refrigerator USGS Sediment Core Laboratory (AD)
USGS Sediment Core Laboratory (AD)
USGS Sediment Core Laboratory (AD)

USGS scientists collect core samples from estuaries, lakes, coasts, and marine environments to study a range of physical and chemical properties preserved in sediment or coral over time. They process and analyze these core samples at the Pacific Coastal and Marine Science Center’s Sediment Core Lab. 

USGS scientists collect core samples from estuaries, lakes, coasts, and marine environments to study a range of physical and chemical properties preserved in sediment or coral over time. They process and analyze these core samples at the Pacific Coastal and Marine Science Center’s Sediment Core Lab. 

Cover image for sediment core lab video, showing core-lab walk-in refrigerator USGS Sediment Core Laboratory
USGS Sediment Core Laboratory
USGS Sediment Core Laboratory

USGS scientists collect core samples from estuaries, lakes, coasts, and marine environments to study a range of physical and chemical properties preserved in sediment or coral over time. They process and analyze these core samples at the Pacific Coastal and Marine Science Center’s Sediment Core Lab. 

USGS scientists collect core samples from estuaries, lakes, coasts, and marine environments to study a range of physical and chemical properties preserved in sediment or coral over time. They process and analyze these core samples at the Pacific Coastal and Marine Science Center’s Sediment Core Lab. 

Aerial image of surfers at sunset in Santa Cruz Science of Surfing
Science of Surfing
Science of Surfing

Join USGS Research Geologist and lifelong surfer Jon Warrick at the Pacific Coastal and Marine Science Center Santa Cruz as he discusses how coastal and ocean geoscience contributes to a better understanding of how waves form and behave as they approach the shore—critical information with a broad range of applications, not least of which is surfing!

Join USGS Research Geologist and lifelong surfer Jon Warrick at the Pacific Coastal and Marine Science Center Santa Cruz as he discusses how coastal and ocean geoscience contributes to a better understanding of how waves form and behave as they approach the shore—critical information with a broad range of applications, not least of which is surfing!

Aerial image of surfers at sunset in Santa Cruz Science of Surfing (AD)
Science of Surfing (AD)
Science of Surfing (AD)

Join USGS Research Geologist and lifelong surfer Jon Warrick at the Pacific Coastal and Marine Science Center Santa Cruz as he discusses how coastal and ocean geoscience contribute to a better understanding of how waves form and behave as they approach the shore—critical information with a broad range of applications, not least of which is surfing!

Join USGS Research Geologist and lifelong surfer Jon Warrick at the Pacific Coastal and Marine Science Center Santa Cruz as he discusses how coastal and ocean geoscience contribute to a better understanding of how waves form and behave as they approach the shore—critical information with a broad range of applications, not least of which is surfing!

Coastal Science Navigator home page Introduction to the USGS Coastal Science Navigator
Introduction to the USGS Coastal Science Navigator
Introduction to the USGS Coastal Science Navigator

The Coastal Science Navigator is intended to help users discover USGS Coastal Change Hazards information, products, and tools relevant to their scientific or decision-making needs.

Cover image for Climate Science Champions series Climate Science Champions: Introduction (AD)
Climate Science Champions: Introduction (AD)
Climate Science Champions: Introduction (AD)

From volcanologists to oceanographers, biologists to paleontologists, the U.S. Geological Survey employs thousands of scientists across the Earth sciences. Each has a unique role in supporting the bureau’s mission of providing “science that matters” to the American people.

From volcanologists to oceanographers, biologists to paleontologists, the U.S. Geological Survey employs thousands of scientists across the Earth sciences. Each has a unique role in supporting the bureau’s mission of providing “science that matters” to the American people.

Background shows coral reefs beneath waves. Overlaid photo shows smiling white woman with short hair. Climate Science Champions Season 3: Jessica Lacy, Research Oceanographer
Climate Science Champions Season 3: Jessica Lacy, Research Oceanographer
Climate Science Champions Season 3: Jessica Lacy, Research Oceanographer

Research Oceanographer Jessica Lacy investigates the influence of tides, waves, and water levels on wave-exposed tidal salt marshes, helping to understand how these important ecosystems will respond to sea level rise. 

Research Oceanographer Jessica Lacy investigates the influence of tides, waves, and water levels on wave-exposed tidal salt marshes, helping to understand how these important ecosystems will respond to sea level rise. 

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