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Minerals found in mine tunnels
Mineral precipitates in mine tunnels may provide information on the paths of groundwater that discharge into the tunnels
Mineral precipitates in mine tunnels may provide information on the paths of groundwater that discharge into the tunnels
Mineral precipitates in mine tunnels may provide information on the paths of groundwater that discharge into the tunnels

Mineral precipitates in mine tunnels, such as the copper-rich minerals in this mine in Oregon, may provide information on the paths of groundwater that discharge into the tunnels, informing strategies for metal recovery and potential remediation. 

Claudia Dimartini holds a long camelthorn rhizomes exposed in a wash at Wupatki National Monument
Long camelthorn rhizomes exposed in a wash at Wupatki National Monument
Long camelthorn rhizomes exposed in a wash at Wupatki National Monument
Long camelthorn rhizomes exposed in a wash at Wupatki National Monument

USGS Biological Science Technician Claudia Dimartini poses with a long camelthorn (Alhagi maurorum) rhizome (underground root structure from which new plants can propagate that was exposed in a wash at the Deadman Wash Confluence Area. Photo by Laura Shriver (USGS).

USGS Biological Science Technician Claudia Dimartini poses with a long camelthorn (Alhagi maurorum) rhizome (underground root structure from which new plants can propagate that was exposed in a wash at the Deadman Wash Confluence Area. Photo by Laura Shriver (USGS).

A person smiles while collecting soil stability data in southern Utah
Collecting soil stability data
Collecting soil stability data
Collecting soil stability data

Sarah Costanzo (USGS) collects soil stability data prior to installing RestoreNet version 2.0 treatments at Canyonlands Research Center near Moab, UT. Photo by Laura Shriver (USGS).

Sarah Costanzo (USGS) collects soil stability data prior to installing RestoreNet version 2.0 treatments at Canyonlands Research Center near Moab, UT. Photo by Laura Shriver (USGS).

Laura Shriver at the soil and restoration science booth at the USGS Flagstaff Science Center Open House.
Soil and restoration science booth at USGS Flagstaff Science Center Open House
Soil and restoration science booth at USGS Flagstaff Science Center Open House
Soil and restoration science booth at USGS Flagstaff Science Center Open House

Laura Shriver at the soil and restoration science booth at the USGS Flagstaff Science Center Open House. The booth included native seeds, biocrusts, a soil texturing activity, and science brief handouts.

Person fly-fishing in a river
Fly-fishing on the Big Hole River, Montana
Fly-fishing on the Big Hole River, Montana
Fly-fishing on the Big Hole River, Montana

Montana is known for its fishing opportunities, especially its cold-water trout fishing. Here, someone is fishing in Big Hole River, Montana. 

Montana is known for its fishing opportunities, especially its cold-water trout fishing. Here, someone is fishing in Big Hole River, Montana. 

River channel with vegetation on the each bank
Ruby River, Montana
Ruby River, Montana
Ruby River, Montana

The Ruby River is a tributary of the Beaverhead River and anglers enjoy trout fishing here.  

The Ruby River is a tributary of the Beaverhead River and anglers enjoy trout fishing here.  

Plastic protective housing holding eDNA sampler on shore of lake
eDNA Sampler in Grand Teton National Park
eDNA Sampler in Grand Teton National Park
eDNA Sampler in Grand Teton National Park

Autonomous environmental DNA (eDNA) sampler in protective housing on the shore of Jackson Lake, Grand Teton National Park. The USGS READI-Net project and eDNA samplers like this one can assist the park in detecting aquatic invasive species, like quagga mussels. 

Autonomous environmental DNA (eDNA) sampler in protective housing on the shore of Jackson Lake, Grand Teton National Park. The USGS READI-Net project and eDNA samplers like this one can assist the park in detecting aquatic invasive species, like quagga mussels. 

Pollinator garden tour at Santa Rita Experimental Range
Pollinator garden tour
Pollinator garden tour
Pollinator garden tour

Albert Klein (University of Arizona) shows the pollinator garden designed and installed by University of Arizona students at the Santa Rita Experimental Range. Photo by Laura Shriver (USGS).

Albert Klein (University of Arizona) shows the pollinator garden designed and installed by University of Arizona students at the Santa Rita Experimental Range. Photo by Laura Shriver (USGS).

Underside of Bell Jet Helicopter with thermal infrared and true-color image sensors and JN and M.D.
Underside of Bell Jet Helicopter with thermal infrared and true-color image sensors and JN and M.D.
Underside of Bell Jet Helicopter with thermal infrared and true-color image sensors and JN and M.D.
four people smile in a southern Utah landscape
Celebrating a successful restoration experiment installation
Celebrating a successful restoration experiment installation
Celebrating a successful restoration experiment installation

From left to right, Ember Bradbury (Colorado State University), Sarah Costanzo (USGS), Sonoma Brill (USGS), and Laura Shriver (USGS) celebrate installing a RestoreNet site at Canyonlands Research Center near Moab, UT.

From left to right, Ember Bradbury (Colorado State University), Sarah Costanzo (USGS), Sonoma Brill (USGS), and Laura Shriver (USGS) celebrate installing a RestoreNet site at Canyonlands Research Center near Moab, UT.

An orange stream flowing into a larger blue river.
Orange staining in a side channel of the Nakolikurok Creek
Orange staining in a side channel of the Nakolikurok Creek
Orange staining in a side channel of the Nakolikurok Creek

Orange streams are increasingly common in the Brooks Range of northern Alaska. The orange stream color reflects oxidized iron, but also often indicates elevated heavy metal concentrations. Our ongoing study aims to document these occurrences and the timing of their onset.

Orange streams are increasingly common in the Brooks Range of northern Alaska. The orange stream color reflects oxidized iron, but also often indicates elevated heavy metal concentrations. Our ongoing study aims to document these occurrences and the timing of their onset.

Brown grass clumps surrounded by green grass.
Emergence of acidic waters from a seep in the Agashashok River Watershed
Emergence of acidic waters from a seep in the Agashashok River Watershed
Emergence of acidic waters from a seep in the Agashashok River Watershed

Orange streams are increasingly common in the Brooks Range of northern Alaska. The orange stream color reflects oxidized iron, but also often indicates elevated heavy metal concentrations. Our ongoing study aims to document these occurrences and the timing of their onset.

Orange streams are increasingly common in the Brooks Range of northern Alaska. The orange stream color reflects oxidized iron, but also often indicates elevated heavy metal concentrations. Our ongoing study aims to document these occurrences and the timing of their onset.

A person standing behind a pale orange river.
An orange tributary of the Igning River, Gates of the Arctic National Park and Preserve, Alaska
An orange tributary of the Igning River, Gates of the Arctic National Park and Preserve, Alaska
An orange tributary of the Igning River, Gates of the Arctic National Park and Preserve, Alaska

Orange streams are increasingly common in the Brooks Range of northern Alaska. The orange stream color reflects oxidized iron, but also often indicates elevated heavy metal concentrations. Our ongoing study aims to document these occurrences and the timing of their onset.

A small brown, white and black bird is held by a bird bander.
House Wren
House Wren
House Wren

This house wren was banded during the fall migration banding activities at EESC's Bird Banding Laboratory in Laurel, MD. 

This house wren was banded during the fall migration banding activities at EESC's Bird Banding Laboratory in Laurel, MD. 

Photographs from a mountainous star coral (Montastraea cavernosa) losing tissue to disease in Florida, USA.
Photographs from a mountainous star coral (Montastraea cavernosa) losing tissue to disease in Florida, USA.
Photographs from a mountainous star coral (Montastraea cavernosa) losing tissue to disease in Florida, USA.
Photographs from a mountainous star coral (Montastraea cavernosa) losing tissue to disease in Florida, USA.

Photographs from a mountainous star coral (Montastraea cavernosa) losing tissue to disease in Florida, USA.  (A) Colony in situ showing bare white, recently denuded skeleton with no turf algae growth (arrowheads) with dark discoloration along the active tissue loss margins (arrows).

Photomicrographs from a mountainous star coral (Montastraea cavernosa) in Florida, USA.
Photomicrographs from a mountainous star coral (Montastraea cavernosa) in Florida, USA.
Photomicrographs from a mountainous star coral (Montastraea cavernosa) in Florida, USA.
Photomicrographs from a mountainous star coral (Montastraea cavernosa) in Florida, USA.

Photomicrographs from a mountainous star coral (Montastraea cavernosa) in Florida, USA. (A) A large cluster of filamentous bacteria are within the gastrovascular space and gastrodermis (asterisk) and extending through mesoglea (arrow) with necrosis and loss of the surface gastrodermis (arrowheads). H&E stain.  Scale bar 200 μm.

Photomicrographs from a mountainous star coral (Montastraea cavernosa) in Florida, USA. (A) A large cluster of filamentous bacteria are within the gastrovascular space and gastrodermis (asterisk) and extending through mesoglea (arrow) with necrosis and loss of the surface gastrodermis (arrowheads). H&E stain.  Scale bar 200 μm.

Two graphs of different colors
Effect of proactive versus reactive management for chytrid fungus, Batrachochytrium salamandrivorans (Bsal)
Effect of proactive versus reactive management for chytrid fungus, Batrachochytrium salamandrivorans (Bsal)
Effect of proactive versus reactive management for chytrid fungus, Batrachochytrium salamandrivorans (Bsal)

Density plots showing higher probability of host occupancy, on average, under proactive disease management (b, right) versus reactive disease management (a, left) for chytrid fungus, Batrachochytrium salamandrivorans (Bsal). Adapted from 

Bell Jet Helicopter with a thermal infrared and true-color sensor co-mounted to the underside
View of nose of Bell Jet Helicopter with a thermal infrared and true-color sensor co-mounted to the underside
View of nose of Bell Jet Helicopter with a thermal infrared and true-color sensor co-mounted to the underside
View of nose of Bell Jet Helicopter with a thermal infrared and true-color sensor co-mounted to the underside

Profile view of a Bell Jet Helicopter with a thermal infrared and true-color sensor co-mounted to the underside of the nose. These sensors are used in airborne thermal infrared surveys for remotely sensing land/water surface temperature.

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