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Explore our planet through photography and imagery, including climate change and water all the way back to the 1800s when the USGS was surveying the country by horse and buggy.

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Skylar Smith and Jim Duncker paddle across the Sandusky River, Ohio to collect bathymetry data for use in a hydraulic model.
Skylar Smith and Jim Duncker paddle across the Sandusky River, Ohio
Skylar Smith and Jim Duncker paddle across the Sandusky River, Ohio
Skylar Smith and Jim Duncker paddle across the Sandusky River, Ohio

Skylar Smith and Jim Duncker (Central Midwest Water Science Center) paddle across the Sandusky River, Ohio to collect bathymetry data for use in a hydraulic model.

View of Castle Geyser, near Old Faithful, in eruption
View of Castle Geyser, near Old Faithful, in eruption
View of Castle Geyser, near Old Faithful, in eruption
View of Castle Geyser, near Old Faithful, in eruption

View of Castle Geyser, near Old Faithful, in eruption, taken from the boardwalk, November 5, 2019.

This is the gage house on the Williamson River, USGS site 11502500.
Williamson River below the Sprague River in Chiloquin, OR.
Williamson River below the Sprague River in Chiloquin, OR.
Williamson River below the Sprague River in Chiloquin, OR.

This is a view of a USGS surface water stream gage that contains equipment to monitor discharge at the Williamson River below the Sprague Ruver in Chiloquin, Oregon. The gage house contains a historic stilling well and a device that records the level of water. It also has a water temerature sensor and a turbidimeter.

This is a view of a USGS surface water stream gage that contains equipment to monitor discharge at the Williamson River below the Sprague Ruver in Chiloquin, Oregon. The gage house contains a historic stilling well and a device that records the level of water. It also has a water temerature sensor and a turbidimeter.

Photo of colorful corals growing on the ocean floor.
Coral garden
Coral garden
Coral garden

This coral garden was discovered in the Stetson-Miami Deepwater HAPC during the 2019 Southeastern U.S. Deep-sea Exploration in an area that may mark the eastern extent of the Million Mounds region.

This coral garden was discovered in the Stetson-Miami Deepwater HAPC during the 2019 Southeastern U.S. Deep-sea Exploration in an area that may mark the eastern extent of the Million Mounds region.

Elkhorn coral on a cinderblock with a label on a coral reef
Elkhorn coral at a calcification assessment station at Crocker Reef
Elkhorn coral at a calcification assessment station at Crocker Reef
Elkhorn coral at a calcification assessment station at Crocker Reef

Established in 2009, the U.S. Geological Survey’s Coral Assessment Network (USGS-CAN) provides data on coral-growth (calcification) rates throughout the Florida Keys. Pictured here is a coral at Crocker Reef in the upper Florida Keys.

Established in 2009, the U.S. Geological Survey’s Coral Assessment Network (USGS-CAN) provides data on coral-growth (calcification) rates throughout the Florida Keys. Pictured here is a coral at Crocker Reef in the upper Florida Keys.

image related to volcanoes. See description
Angel Terrace, Mammoth Hot Springs, Yellowstone National Park. Travertine depos
Angel Terrace, Mammoth Hot Springs, Yellowstone National Park. Travertine depos
Angel Terrace, Mammoth Hot Springs, Yellowstone National Park. Travertine depos

Angel Terrace, Mammoth Hot Springs, Yellowstone National Park. Travertine deposits are abundant in the area. Photo by JoAnn Holloway, 2003.

Tundra swan on the Colville River Delta
Tundra swan on the Colville River Delta, Alaska
Tundra swan on the Colville River Delta, Alaska
Colo photograph of water in sample vials
Water collected from the lake at the bottom of Halema‘uma‘u
Water collected from the lake at the bottom of Halema‘uma‘u
Water collected from the lake at the bottom of Halema‘uma‘u

Water collected from the lake at the bottom of Halema‘uma‘u is prepared for laboratory analyses at the USGS California Volcano Observatory. Results thus far reveal chemistry indicative of complex reactions between the water, magmatic gases, and Kīlauea's basaltic rocks.

Water collected from the lake at the bottom of Halema‘uma‘u is prepared for laboratory analyses at the USGS California Volcano Observatory. Results thus far reveal chemistry indicative of complex reactions between the water, magmatic gases, and Kīlauea's basaltic rocks.

Five glass beakers on a lab table
Water collected from the lake at the bottom of Halema‘uma‘u
Water collected from the lake at the bottom of Halema‘uma‘u
Water collected from the lake at the bottom of Halema‘uma‘u

Water collected from the lake at the bottom of Halema‘uma‘u is prepared for laboratory analyses at the USGS California Volcano Observatory. Results thus far reveal chemistry indicative of complex reactions among the water, magmatic gases and Kīlauea's basaltic rocks. 

Water collected from the lake at the bottom of Halema‘uma‘u is prepared for laboratory analyses at the USGS California Volcano Observatory. Results thus far reveal chemistry indicative of complex reactions among the water, magmatic gases and Kīlauea's basaltic rocks. 

Squirrel-like animal looks up at the camera
Humboldt’s flying squirrel on wildlife camera
Humboldt’s flying squirrel on wildlife camera
Humboldt’s flying squirrel on wildlife camera

The photo features a Humboldt’s flying squirrel (Glaucomys oregonensis) caught on a wildlife camera. The camera was set up to study animal movement under a new road crossing structure known as the “toad road” in Sierra National Forest.

The photo features a Humboldt’s flying squirrel (Glaucomys oregonensis) caught on a wildlife camera. The camera was set up to study animal movement under a new road crossing structure known as the “toad road” in Sierra National Forest.

Hydrologic Technician Sharon Mulready checks equipment on electrical power tower
Hydrologic Technician Sharon Mulready checks equipment on tower
Hydrologic Technician Sharon Mulready checks equipment on tower
Hydrologic Technician Sharon Mulready checks equipment on tower

Hydrologic Technician Sharon Mulready checks equipment on electrical power tower and site 372750122012701 Coyote Creek near Alviso Slough. The tidal gage is located at the confluence of Coyote Creek and Alviso Slough, and is accessible only by boat. The estuary is fed by the Sacramento and San Joaquin Rivers, and various tributaries in the Central Valley.

Hydrologic Technician Sharon Mulready checks equipment on electrical power tower and site 372750122012701 Coyote Creek near Alviso Slough. The tidal gage is located at the confluence of Coyote Creek and Alviso Slough, and is accessible only by boat. The estuary is fed by the Sacramento and San Joaquin Rivers, and various tributaries in the Central Valley.

Georgia mineral commodity producing areas map from 2014 Minerals Yearbook
Mineral commodity producing areas of Georgia in 2014
Mineral commodity producing areas of Georgia in 2014
Mineral commodity producing areas of Georgia in 2014

The Georgia chapter of the Minerals Yearbook Volume II - Area Reports, Domestic - contains data and information on the nonfuel mineral commodities produced in Georgia including a generalized map of principal mineral commodity producing areas. The map is included in the PDF version; both PDF and XLS versions of text and data are available.

The Georgia chapter of the Minerals Yearbook Volume II - Area Reports, Domestic - contains data and information on the nonfuel mineral commodities produced in Georgia including a generalized map of principal mineral commodity producing areas. The map is included in the PDF version; both PDF and XLS versions of text and data are available.

Color photograph of scientists preparing UAS for flight
HVO scientists prepare UAS for Kīlauea summit crater lake sampling
HVO scientists prepare UAS for Kīlauea summit crater lake sampling
HVO scientists prepare UAS for Kīlauea summit crater lake sampling

USGS Hawaiian Volcano Observatory and DOI Office of Aviation staff prepare the sampling mechanism (on blue tarp) and inspect the Unmanned Aircraft System (UAS) just before it took off to collect water from the Halema‘uma‘u crater lake.

USGS Hawaiian Volcano Observatory and DOI Office of Aviation staff prepare the sampling mechanism (on blue tarp) and inspect the Unmanned Aircraft System (UAS) just before it took off to collect water from the Halema‘uma‘u crater lake.

Unoccupied Aircraft System is inspected by pilot just before take off
Unoccupied Aircraft System is inspected by pilot just before take off
Unoccupied Aircraft System is inspected by pilot just before take off
Unoccupied Aircraft System is inspected by pilot just before take off

The sampling mechanism (on blue tarp) is prepared and the Unoccupied Aircraft System (UAS) is inspected just before take off to collect water from the Halema‘uma‘u crater lake. Brightly colored flagging tape tied to a cable attached to the UAS indicated depth as the sampling tool was lowered into the water. 

The sampling mechanism (on blue tarp) is prepared and the Unoccupied Aircraft System (UAS) is inspected just before take off to collect water from the Halema‘uma‘u crater lake. Brightly colored flagging tape tied to a cable attached to the UAS indicated depth as the sampling tool was lowered into the water. 

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