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View of a meadow with a mountain range (the eastern front of the Gallatin Range) in the background under a blue sky
Eastern front of the Gallatin Range as viewed from Gardners Hole in Yellowstone National Park
Eastern front of the Gallatin Range as viewed from Gardners Hole in Yellowstone National Park
Eastern front of the Gallatin Range as viewed from Gardners Hole in Yellowstone National Park

View to the southwest of the eastern front of the Gallatin Range from Gardners Hole. The East Gallatin-Reese Creek fault system runs along the base of the range at the prominent break-in-slope in the trees. Photo by James Mauch, Wyoming State Geological Survey, on August 29, 2023.

View to the southwest of the eastern front of the Gallatin Range from Gardners Hole. The East Gallatin-Reese Creek fault system runs along the base of the range at the prominent break-in-slope in the trees. Photo by James Mauch, Wyoming State Geological Survey, on August 29, 2023.

A portion of organic-rich lake mud recovered from Rush Lake, Lower Geyser Basin, Yellowstone National Park
A portion of organic-rich lake mud recovered from Rush Lake, Lower Geyser Basin, Yellowstone National Park
A portion of organic-rich lake mud recovered from Rush Lake, Lower Geyser Basin, Yellowstone National Park
A portion of organic-rich lake mud recovered from Rush Lake, Lower Geyser Basin, Yellowstone National Park

A portion of organic-rich lake mud recovered from Rush Lake, in the Lower Geyser Basin of Yellowstone National Park. Younger sediments are to the left and older sediments are to the right. The researcher is pointing to a thin, white layer—the Mazama ash, produced during the eruption 7600 years ago that formed Crater Lake in Oregon.

A portion of organic-rich lake mud recovered from Rush Lake, in the Lower Geyser Basin of Yellowstone National Park. Younger sediments are to the left and older sediments are to the right. The researcher is pointing to a thin, white layer—the Mazama ash, produced during the eruption 7600 years ago that formed Crater Lake in Oregon.

Several pieces of large construction equipment, including two cranes and a cement mixer, in a cleared area among trees.  A grass and tree-covered hill rises in the background.
Pouring cement for a footer of the new Yellowstone River Bridge
Pouring cement for a footer of the new Yellowstone River Bridge
Pouring cement for a footer of the new Yellowstone River Bridge

Pouring sulfate-resistant cement for one of the bridge footers after a drill hole has been completed. The existing bridge can be seen through the trees on the left side of the picture.

Pouring sulfate-resistant cement for one of the bridge footers after a drill hole has been completed. The existing bridge can be seen through the trees on the left side of the picture.

Three construction workers stand around construction equipment, including a drill.
Drilling for the new Yellowstone River Bridge near Tower Junction
Drilling for the new Yellowstone River Bridge near Tower Junction
Drilling for the new Yellowstone River Bridge near Tower Junction

Drilling for the new Yellowstone River Bridge near Tower Junction. A small, yellow, personal 4-gas safety monitor can be seen on the upper left breast pocket on the person in the far right of the picture.  Photo by Ken Sims (University of Wyoming), August 3, 2023.

Drilling for the new Yellowstone River Bridge near Tower Junction. A small, yellow, personal 4-gas safety monitor can be seen on the upper left breast pocket on the person in the far right of the picture.  Photo by Ken Sims (University of Wyoming), August 3, 2023.

Components of Wyoming StreamStats
Components of Wyoming StreamStats
Components of Wyoming StreamStats
Components of Wyoming StreamStats

Wyoming StreamStats includes data on land use, land cover, soils, climate, elevation, and streamflow statistics and prediction equations.

Wyoming StreamStats includes data on land use, land cover, soils, climate, elevation, and streamflow statistics and prediction equations.

a field of bunchgrasses interspersed with plants with yellow flowers and bare ground
Natural recovery of native vegetation post-wildfire
Natural recovery of native vegetation post-wildfire
Natural recovery of native vegetation post-wildfire

This site was burned but not invaded by exotic annual grasses. Many perennial bunchgrasses were present before the fire and were able to recover quickly afterwards.

many green sagebrush shrubs with short brown grass in between
Sagebrush patches invaded by cheatgrass
Sagebrush patches invaded by cheatgrass
Sagebrush patches invaded by cheatgrass

Cheatgrass has invaded the space between sagebrush shrubs on this landscape south of Rock Springs in Wyoming. 

green sagebrush shrubs with brown grass in between
Cheatgrass and sagebrush shrubs in Wyoming
Cheatgrass and sagebrush shrubs in Wyoming
Cheatgrass and sagebrush shrubs in Wyoming

This site south of Rock Springs in Wyoming was not burned but cheatgrass has invaded the space between sagebrush shrubs. 

A sea of brown grass with interspersed green vegetation on top of a hill
Burned and invaded landscape in Wyoming
Burned and invaded landscape in Wyoming
Burned and invaded landscape in Wyoming

This landscape south of Rock Springs, Wyoming was burned and subsequently invaded by cheatgrass. Cheatgrass has a short growing season and leaves behind mats of dry, dead material that serves as wildfire fuel--contributing to a cycle of more frequent and larger wildfires and more plant invasions.

This landscape south of Rock Springs, Wyoming was burned and subsequently invaded by cheatgrass. Cheatgrass has a short growing season and leaves behind mats of dry, dead material that serves as wildfire fuel--contributing to a cycle of more frequent and larger wildfires and more plant invasions.

Map of Norris Geyser Basin
Map of Norris Geyser Basin
Map of Norris Geyser Basin
Map of Norris Geyser Basin

Map of Norris Geyser Basin showing the locations of major subbasins, roads and trails, and Nuphar Lake.

Map of Norris Geyser Basin showing the locations of major subbasins, roads and trails, and Nuphar Lake.

High-resolution satellite images of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin
High-resolution satellite images of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin
High-resolution satellite images of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin
High-resolution satellite images of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin

High-resolution satellite images of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin acquired by Quickbird-2 on September 11, 2006 (left), WorldView-3 on July 7, 2016 (middle), and WorldView-3 on March 30, 2022 (right).  Note the change in color of Nuphar lake, from deep green to light blue, over time, as well as the increased evidence of flow f

High-resolution satellite images of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin acquired by Quickbird-2 on September 11, 2006 (left), WorldView-3 on July 7, 2016 (middle), and WorldView-3 on March 30, 2022 (right).  Note the change in color of Nuphar lake, from deep green to light blue, over time, as well as the increased evidence of flow f

Animated GIF of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin
Animated GIF of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin
Animated GIF of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin
Animated GIF of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin

High-resolution satellite images of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin acquired by Quickbird-2 on September 11, 2006 and WorldView-3 on March 30, 2022.  Note the change in color of Nuphar lake, from deep green to light blue, over time, as well as the increased evidence of flow from thermal features on the east side of Porcelain Bas

High-resolution satellite images of the Porcelain Basin and Nuphar Lake areas of Norris Geyser Basin acquired by Quickbird-2 on September 11, 2006 and WorldView-3 on March 30, 2022.  Note the change in color of Nuphar lake, from deep green to light blue, over time, as well as the increased evidence of flow from thermal features on the east side of Porcelain Bas

Visible (top) and thermal (bottom) images of Porcelain Basin
Visible (top) and thermal (bottom) images of Porcelain Basin
Visible (top) and thermal (bottom) images of Porcelain Basin
Visible (top) and thermal (bottom) images of Porcelain Basin

Visible (top) and thermal (bottom) images of Porcelain Basin looking to the north from the old roadbed.  Nuphar Lake is off the photograph to the right.  Cool-water seeps into Porcelain Basin are clearly evident in the thermal image and appear to flow underground from Nuphar Lake.  USGS photos by Mike Poland, July 1, 2023.

Visible (top) and thermal (bottom) images of Porcelain Basin looking to the north from the old roadbed.  Nuphar Lake is off the photograph to the right.  Cool-water seeps into Porcelain Basin are clearly evident in the thermal image and appear to flow underground from Nuphar Lake.  USGS photos by Mike Poland, July 1, 2023.

green sagebrush shrubs with bare ground in between and short trees and cliffs in the distance
Undisturbed sagebrush landscape in Wyoming
Undisturbed sagebrush landscape in Wyoming
Undisturbed sagebrush landscape in Wyoming

This site south of Rock Springs in Wyoming represents an intact sagebrush ecosystem. It has not been burned or invaded by exotic annual grasses. Undisturbed sagebrush steppe has bare ground between shrubs which helps to limit the spread of wildfire. When cheatgrass invades fires can grow larger.

This site south of Rock Springs in Wyoming represents an intact sagebrush ecosystem. It has not been burned or invaded by exotic annual grasses. Undisturbed sagebrush steppe has bare ground between shrubs which helps to limit the spread of wildfire. When cheatgrass invades fires can grow larger.

Comparison between the velocity structures outlining the Yellowstone’s upper-crustal magma reservoir at 5 km (3 mi) depth based on sparse (left) and dense (right) seismic networks
Velocity structures outlining the Yellowstone’s upper-crustal magma reservoir based on sparse (left) and dense (right) seismic networks
Velocity structures outlining the Yellowstone’s upper-crustal magma reservoir based on sparse (left) and dense (right) seismic networks
Velocity structures outlining the Yellowstone’s upper-crustal magma reservoir based on sparse (left) and dense (right) seismic networks

Comparison between the velocity structures outlining the Yellowstone’s upper-crustal magma reservoir at 5 km (3 mi) depth based on sparse (left) and dense (right) seismic networks. The open squares denote the locations of seismic sensors. Warmer color indicates lower velocity, representing higher melt fraction within the medium.

Landscape image of Palisades Reservoir, on the Idaho-Wyoming border
Palisades Reservoir on the Idaho-Wyoming border
Palisades Reservoir on the Idaho-Wyoming border
Palisades Reservoir on the Idaho-Wyoming border

View of Palisades Reservoir, on the Idaho-Wyoming border.  This waterbody was included in a state-wide effort to validate satellite remote sensing of water quality.

View of Palisades Reservoir, on the Idaho-Wyoming border.  This waterbody was included in a state-wide effort to validate satellite remote sensing of water quality.

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