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Image:  Desert Perchlorate Field Work
Desert Perchlorate Field Work
Desert Perchlorate Field Work
Desert Perchlorate Field Work

USGS scientists dig soil pits in Nevada's Amargosa Desert to study the distribution of natural perchlorate and to determine the atmospheric-soil-plant interactions that affected perchlorate's cycling in a terrestrial ecosystem.


Amargosa Desert, Nevada

~17 km south of Beatty; ~20 km east of Death Valley National Park.

USGS scientists dig soil pits in Nevada's Amargosa Desert to study the distribution of natural perchlorate and to determine the atmospheric-soil-plant interactions that affected perchlorate's cycling in a terrestrial ecosystem.


Amargosa Desert, Nevada

~17 km south of Beatty; ~20 km east of Death Valley National Park.

Image: Red-Spotted Newt (Notophthalmus viridescens viridescens)
Red-Spotted Newt (Notophthalmus viridescens viridescens)
Red-Spotted Newt (Notophthalmus viridescens viridescens)
Red-Spotted Newt (Notophthalmus viridescens viridescens)

Red-spotted newt in the leaf litter along a trail in Big South Fork National River and Recreation Area.

Image: 2008 High Flow Monitoring
2008 High Flow Monitoring
2008 High Flow Monitoring
2008 High Flow Monitoring

Members of the USGS Glen Canyon Adaptive Management Working Group in Flagstaff, Ariz., monitor the Colorado River downstream of Glen Canyon Dam during the high-flow experiment of May 2008.

Members of the USGS Glen Canyon Adaptive Management Working Group in Flagstaff, Ariz., monitor the Colorado River downstream of Glen Canyon Dam during the high-flow experiment of May 2008.

Image: Flooded Bridge On The St. John River
Flooded Bridge On The St. John River
Flooded Bridge On The St. John River
Flooded Bridge On The St. John River

The USGS gages the St. John River at Fort Kent, Maine at Station 01014000. A major flood in 2008 was the highest flow measured at this station, based on record going back to the 1920s. This photo shows the International Bridge in Ft. Kent, right at the water surface of the flooded river.

The USGS gages the St. John River at Fort Kent, Maine at Station 01014000. A major flood in 2008 was the highest flow measured at this station, based on record going back to the 1920s. This photo shows the International Bridge in Ft. Kent, right at the water surface of the flooded river.

Image: Underwood 3
Underwood 3
Underwood 3
Underwood 3

North Dakota Discovery Farms Underwood waterway site 3, located west of Underwood, ND.

North Dakota Discovery Farms Underwood waterway site 3, located west of Underwood, ND.

St. John River threatens to swamp a steel bridge.
St. John River at Ft. Kent, Maine Flood 2008
St. John River at Ft. Kent, Maine Flood 2008
St. John River at Ft. Kent, Maine Flood 2008

Understanding the forces that influence major floods can help inform the design of more resilient infrastructure. Image shows a major flood on the St. John River on the border of Maine, United States and New Brunswick, Canada, April 29, 2008. This site was part of the study. USGS Public Domain.

Understanding the forces that influence major floods can help inform the design of more resilient infrastructure. Image shows a major flood on the St. John River on the border of Maine, United States and New Brunswick, Canada, April 29, 2008. This site was part of the study. USGS Public Domain.

Image: Taking Polar Bear Blood Samples
Taking Polar Bear Blood Samples
Taking Polar Bear Blood Samples
Taking Polar Bear Blood Samples

USGS scientist Karyn Rode takes a blood sample from a polar bear to estimate the diets of wild bears.

USGS scientist Karyn Rode takes a blood sample from a polar bear to estimate the diets of wild bears.

Image: Taking Polar Bear Blood Samples
Taking Polar Bear Blood Samples
Taking Polar Bear Blood Samples
Taking Polar Bear Blood Samples

USGS scientist Karyn Rode takes a blood sample from a polar bear to estimate the diets of wild bears.

USGS scientist Karyn Rode takes a blood sample from a polar bear to estimate the diets of wild bears.

Image: USGS Training on Borehole Geophysical Logging
USGS Training on Borehole Geophysical Logging
USGS Training on Borehole Geophysical Logging
USGS Training on Borehole Geophysical Logging

A USGS hydrologist holds an electromagnetic induction borehole logging tool while the tool is calibrated. The hydrologist was participating in a USGS class on how to use electromagnetic induction geophysical methods for groundwater investigations, conducted by the USGS Office of Groundwater Branch of Geophysics in 2008.

A USGS hydrologist holds an electromagnetic induction borehole logging tool while the tool is calibrated. The hydrologist was participating in a USGS class on how to use electromagnetic induction geophysical methods for groundwater investigations, conducted by the USGS Office of Groundwater Branch of Geophysics in 2008.

Image: Fence Lizard
Fence Lizard
Fence Lizard
Fence Lizard

A Fence Lizard (tentative identification) on the side of a tree trunk near the Potomac River.

A Fence Lizard (tentative identification) on the side of a tree trunk near the Potomac River.

Image: Water-Caused Erosion in River Rocks
Water-Caused Erosion in River Rocks
Water-Caused Erosion in River Rocks
Water-Caused Erosion in River Rocks

Rocks uncovered by a drought and a lower level of the Potamac River, at the Chesapeake and Ohio Canal National Historical Park, Maryland. The holes in the center rock are caused by circulating water holding a smaller rock or pebble up against the large rock, and the resulting friction eroding a "pothole," into the larger rock.

Rocks uncovered by a drought and a lower level of the Potamac River, at the Chesapeake and Ohio Canal National Historical Park, Maryland. The holes in the center rock are caused by circulating water holding a smaller rock or pebble up against the large rock, and the resulting friction eroding a "pothole," into the larger rock.

Image: Water-caused Erosion in River Rocks
Water-caused Erosion in River Rocks
Water-caused Erosion in River Rocks
Water-caused Erosion in River Rocks

Rocks uncovered by a drought and a lower level of the Potomac River on Olmsted Island at the Chesapeake and Ohio Canal National Historical Park, Maryland. The holes in the center rock are caused by circulating water holding a smaller rock or pebble up against the large rock, and the resulting friction eroding a "pothole," into the larger rock.

Rocks uncovered by a drought and a lower level of the Potomac River on Olmsted Island at the Chesapeake and Ohio Canal National Historical Park, Maryland. The holes in the center rock are caused by circulating water holding a smaller rock or pebble up against the large rock, and the resulting friction eroding a "pothole," into the larger rock.

Image: Halema'uma'u Crater, Kilauea Volcano Summit Eruption 2008
Halema'uma'u Crater, Kilauea Volcano Summit Eruption 2008
Halema'uma'u Crater, Kilauea Volcano Summit Eruption 2008
Halema'uma'u Crater, Kilauea Volcano Summit Eruption 2008

Kīlauea Volcano's summit vent within Halema‘uma‘u Crater was about 115 feet in diameter in April 2008, a month after it opened. 

Image: Scientist Working in Lab
Scientist Working in Lab
Scientist Working in Lab
Scientist Working in Lab

Dr. David Blehert working in his laboratory at the USGS National Wildlife Health Center.

Dr. David Blehert working in his laboratory at the USGS National Wildlife Health Center.

Image: Bridge over the Red River
Bridge over the Red River
Bridge over the Red River
Bridge over the Red River

Bridge over the Red River of the North at Oslo, Minnesota.

Image: Scientist at Bat Cave
Scientist at Bat Cave
Scientist at Bat Cave
Scientist at Bat Cave

USGS wildlife disease specialist Kim Miller outside of an abandoned mine where bats hibernate in New York.

USGS wildlife disease specialist Kim Miller outside of an abandoned mine where bats hibernate in New York.

Station 08108700 Brazos River at State Highway 21 near Bryan, Texas.
Station 08108700 Brazos Riv. at SH 21 near Bryan, Texas
Station 08108700 Brazos Riv. at SH 21 near Bryan, Texas
Station 08108700 Brazos Riv. at SH 21 near Bryan, Texas

U.S. Geological Survey streamflow-gaging station 08108700 Brazos River at State Highway 21 near Bryan, Texas, looking downstream from right bank just downstream from Texas State Highway 21 bridge, April 2, 2008.

U.S. Geological Survey streamflow-gaging station 08108700 Brazos River at State Highway 21 near Bryan, Texas, looking downstream from right bank just downstream from Texas State Highway 21 bridge, April 2, 2008.

Image: Measuring Snowfall with Solar Panels
Measuring Snowfall with Solar Panels
Measuring Snowfall with Solar Panels
Measuring Snowfall with Solar Panels

A new device to measure snowfall in remote areas is pictured here with its solar panels, small windmill, and snow-collecting bucket.

A new device to measure snowfall in remote areas is pictured here with its solar panels, small windmill, and snow-collecting bucket.

U.S. Geological Survey streamflow-gaging station 08109000 Brazos River near Bryan, Texas.
USGS station 08109000 Brazos River near Bryan, Texas
USGS station 08109000 Brazos River near Bryan, Texas
USGS station 08109000 Brazos River near Bryan, Texas

U.S. Geological Survey streamflow-gaging station 08109000 Brazos River near Bryan, Texas, looking upstream from left bank, April 2, 2008.

SIR 2009–5174

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