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Images of Yellowstone.

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Photo and lidar image of Highway 191 landslide, near Yellowstone National Park
Photo and lidar image of Highway 191 landslide, near Yellowstone National Park
Photo and lidar image of Highway 191 landslide, near Yellowstone National Park
Photo and lidar image of Highway 191 landslide, near Yellowstone National Park

Top shows aerial photo of a section of US Highway 191 north of West Yellowstone in Montana. Bottom shows lidar imagery that reveals the road traversing a landslide deposit. High elevations are brown and white, and green is lower elevation. Shading indicates steeper slopes.

Top shows aerial photo of a section of US Highway 191 north of West Yellowstone in Montana. Bottom shows lidar imagery that reveals the road traversing a landslide deposit. High elevations are brown and white, and green is lower elevation. Shading indicates steeper slopes.

Spectrogram and waveform of a possible long-period earthquake in Yellowstone that occurred on August 26, 2021, near Norris Geyser Basin
Spectrogram and waveform of a possible long-period earthquake in Yellowstone
Spectrogram and waveform of a possible long-period earthquake in Yellowstone
Spectrogram and waveform of a possible long-period earthquake in Yellowstone

Spectrogram of a possible long-period (LP) earthquake in Yellowstone that occurred on August 26, 2021, near Norris Geyser Basin.  The top panel shows a 30-second seismogram recorded at seismic station YHH.  The bottom panel shows the spectrogram with energy concentrated in the 1–3 Hz range and lasting for ~15 seconds.

Spectrogram of a possible long-period (LP) earthquake in Yellowstone that occurred on August 26, 2021, near Norris Geyser Basin.  The top panel shows a 30-second seismogram recorded at seismic station YHH.  The bottom panel shows the spectrogram with energy concentrated in the 1–3 Hz range and lasting for ~15 seconds.

Spectrogram and waveform of a typical Volcano-Tectonic (VT) earthquake that occurred near Norris Geyser Basin, Yellowstone National Park
Spectrogram and waveform of a volcano-tectonic (VT) earthquake in Yellowstone
Spectrogram and waveform of a volcano-tectonic (VT) earthquake in Yellowstone
Spectrogram and waveform of a volcano-tectonic (VT) earthquake in Yellowstone

Spectrogram of a typical volcano-tectonic (VT) earthquake that occurred near Norris Geyser Basin, in the same region similar depth as the possible long-period (LP) event that was recorded on August 26, 2021.  The top panel shows a 30-second seismogram recorded at seismic station YHH.  The bottom panel shows the spectrogram with energy ranging from 1-15 Hz

Spectrogram of a typical volcano-tectonic (VT) earthquake that occurred near Norris Geyser Basin, in the same region similar depth as the possible long-period (LP) event that was recorded on August 26, 2021.  The top panel shows a 30-second seismogram recorded at seismic station YHH.  The bottom panel shows the spectrogram with energy ranging from 1-15 Hz

Landsat 8 nighttime thermal infrared image of Yellowstone from 28 January 2022
Landsat 8 nighttime thermal infrared image of Yellowstone from 28 January 2022
Landsat 8 nighttime thermal infrared image of Yellowstone from 28 January 2022
Landsat 8 nighttime thermal infrared image of Yellowstone from 28 January 2022

Landsat 8 nighttime thermal infrared image of Yellowstone from 28 January 2022.  Inset images are zoomed in on the area outlined by the white square.  Inset image (A) has the raw data values, which range from 9070 to 21284.  Inset image (B) shows the same image converted to spectral radiance, where values range from 3.13 to 7.21 W/m2/micron

Landsat 8 nighttime thermal infrared image of Yellowstone from 28 January 2022.  Inset images are zoomed in on the area outlined by the white square.  Inset image (A) has the raw data values, which range from 9070 to 21284.  Inset image (B) shows the same image converted to spectral radiance, where values range from 3.13 to 7.21 W/m2/micron

Map of seismicity in the Yellowstone region during 2021
Seismicity in the Yellowstone region during 2021
Seismicity in the Yellowstone region during 2021
Seismicity in the Yellowstone region during 2021

Map of seismicity (red circles) in the Yellowstone region during 2021. Gray lines are roads, black dashed line shows the caldera boundary, Yellowstone National Park is outlined by black dot-dashed line, and gray dashed lines denote state boundaries.

Map of seismicity (red circles) in the Yellowstone region during 2021. Gray lines are roads, black dashed line shows the caldera boundary, Yellowstone National Park is outlined by black dot-dashed line, and gray dashed lines denote state boundaries.

Siliceous sinter in the field and viewed via Scanning Electron Microscope
Siliceous sinter in the field and viewed via Scanning Electron Microscope
Siliceous sinter in the field and viewed via Scanning Electron Microscope
Siliceous sinter in the field and viewed via Scanning Electron Microscope

Left photo shows a loose piece of siliceous sinter that was precipitated around a photosynthetic microbial mat in the Lower Geyser Basin.  The microbial mat died when the outflow channel changed positions.

Left photo shows a loose piece of siliceous sinter that was precipitated around a photosynthetic microbial mat in the Lower Geyser Basin.  The microbial mat died when the outflow channel changed positions.

Castle Geyser features and Scanning Electron Microscope image of algal filament in a silica sheath
Castle Geyser features and Scanning Electron Microscope image of algal filament in a silica sheath
Castle Geyser features and Scanning Electron Microscope image of algal filament in a silica sheath
Castle Geyser features and Scanning Electron Microscope image of algal filament in a silica sheath

On the left is Castle Geyser during an eruption with a pool from nearby Tortoise Shell Spring showing photosynthetic pigments at the bottom. The middle image is of a small pool in the Geyser Hill Group in the Upper Geyser Basin with an outflow channel full of yellow, green, orange, red, and brown pigmented phototrophic microbial mats.

On the left is Castle Geyser during an eruption with a pool from nearby Tortoise Shell Spring showing photosynthetic pigments at the bottom. The middle image is of a small pool in the Geyser Hill Group in the Upper Geyser Basin with an outflow channel full of yellow, green, orange, red, and brown pigmented phototrophic microbial mats.

A 200-kilogram (440-pound) fragment of the Canyon Diablo meteorite that was found at Meteor Crater in Arizona
A 200-kilogram (440-pound) fragment of the Canyon Diablo meteorite that was found at Meteor Crater in Arizona
A 200-kilogram (440-pound) fragment of the Canyon Diablo meteorite that was found at Meteor Crater in Arizona
A 200-kilogram (440-pound) fragment of the Canyon Diablo meteorite that was found at Meteor Crater in Arizona

A 200-kilogram (440-pound) fragment of the Canyon Diablo meteorite that was found at Meteor Crater in Arizona.

Map of the Uhl Hill fault in eastern Grand Teton National Park, Wyoming
Map of the Uhl Hill fault in eastern Grand Teton National Park, Wyoming
Map of the Uhl Hill fault in eastern Grand Teton National Park, Wyoming
Map of the Uhl Hill fault in eastern Grand Teton National Park, Wyoming

Map of the Uhl Hill fault in eastern Grand Teton National Park. Base map is a 1-meter lidar hillshade. Black arrows mark the visible fault scarp, and red lines mark locations where scarp profiles were generated from lidar data or field surveying.

Map of the Uhl Hill fault in eastern Grand Teton National Park. Base map is a 1-meter lidar hillshade. Black arrows mark the visible fault scarp, and red lines mark locations where scarp profiles were generated from lidar data or field surveying.

Scarp of the Uhl Hill fault in eastern Grand Teton National Park, Wyoming
Scarp of the Uhl Hill fault in eastern Grand Teton National Park, Wyoming
Scarp of the Uhl Hill fault in eastern Grand Teton National Park, Wyoming
Scarp of the Uhl Hill fault in eastern Grand Teton National Park, Wyoming

Scarp of the Uhl Hill fault. Photo (top) is looking west at the east-facing fault scarp, with a geologist at the top of the scarp for scale. Here, the fault cuts through Pinedale-1 glacial deposits just south of a Pinedale-2 end moraine. Plot (bottom) is a scarp profile generated from lidar elevation data.

Scarp of the Uhl Hill fault. Photo (top) is looking west at the east-facing fault scarp, with a geologist at the top of the scarp for scale. Here, the fault cuts through Pinedale-1 glacial deposits just south of a Pinedale-2 end moraine. Plot (bottom) is a scarp profile generated from lidar elevation data.

Difference in mapped rock units for Mount Everts, Yellowstone National Park
Difference in mapped rock units for Mount Everts, Yellowstone National Park
Difference in mapped rock units for Mount Everts, Yellowstone National Park
Difference in mapped rock units for Mount Everts, Yellowstone National Park

Simplified geologic maps showing the difference in mapped rock units from the current, large-scale geologic maps dividing Mount Everts and that join along the boundary between Montana and Wyoming.

Simplified geologic maps showing the difference in mapped rock units from the current, large-scale geologic maps dividing Mount Everts and that join along the boundary between Montana and Wyoming.

Reconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, Idaho
Reconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, Idaho
Reconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, Idaho
Reconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, Idaho

Reconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, Idaho. National Park Service photo, https://www.nps.gov/articles/000/equus_simplicidens.htm.

Map of Porcelain Basin and images of colloidal pool over time.
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Comparison of (a) 1904 Historical map with (b) 1988 USGS map. Colloidal Pool is a large, labeled pool roughly located on a straight line between Hurricane vent and Whirligig Geyser on the 1988 map (b); this same transect on the 1904 map (a) shows no feature at that location (white circle).

Comparison of (a) 1904 Historical map with (b) 1988 USGS map. Colloidal Pool is a large, labeled pool roughly located on a straight line between Hurricane vent and Whirligig Geyser on the 1988 map (b); this same transect on the 1904 map (a) shows no feature at that location (white circle).

High powered microscopic images showing clay particles and diatoms
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Scanning electron microscopy (SEM) images of the Colloidal Pool colloids (images are a combination of backscatter and secondary electrons). The colloids are a mixture of clay particles, hydrated silica, alunite, and diatoms.

Scanning electron microscopy (SEM) images of the Colloidal Pool colloids (images are a combination of backscatter and secondary electrons). The colloids are a mixture of clay particles, hydrated silica, alunite, and diatoms.

Thin section photo of Lava Creek Tuff “unit 2"
Thin section photo of Lava Creek Tuff “unit 2"
Thin section photo of Lava Creek Tuff “unit 2"
Thin section photo of Lava Creek Tuff “unit 2"

Microscope thin-section photo of Lava Creek Tuff “unit 2.” Photo by Ray Salazar (Montana State University) on October 28, 2021.

Microscope thin-section photo of Lava Creek Tuff “unit 2.” Photo by Ray Salazar (Montana State University) on October 28, 2021.

Different views of an eruption from two predictable geysers
Different views of an eruption from two predictable geysers
Different views of an eruption from two predictable geysers
Different views of an eruption from two predictable geysers

Different views of an eruption from two predictable geysers. (a, c) Graphs showing water temperatures recorded by data loggers stationed near Beehive and Old Faithful Geysers, respectively. These data loggers were deployed by the Yellowstone Geology Program, configured to capture temperatures at one-minute intervals (indicated by blue dots).

Different views of an eruption from two predictable geysers. (a, c) Graphs showing water temperatures recorded by data loggers stationed near Beehive and Old Faithful Geysers, respectively. These data loggers were deployed by the Yellowstone Geology Program, configured to capture temperatures at one-minute intervals (indicated by blue dots).

Example initial analyses on the water temperature data
Example initial analyses on the water temperature data
Example initial analyses on the water temperature data
Example initial analyses on the water temperature data

Example initial analyses on the water temperature data. (a, c) Graphs showing the calculated time between eruptions. (b, d) Histograms demonstrating the distribution of eruption intervals.

Example initial analyses on the water temperature data. (a, c) Graphs showing the calculated time between eruptions. (b, d) Histograms demonstrating the distribution of eruption intervals.

Yellowstone Lake bathymetry showing the location of the Deep Hole vent field
Yellowstone Lake map showing the location of the Deep Hole vent field
Yellowstone Lake map showing the location of the Deep Hole vent field
Yellowstone Lake map showing the location of the Deep Hole vent field

Yellowstone Lake bathymetry showing the location of the Deep Hole vent field.  Inset shows locations of heat-flux measurements (red dots) in the Deep Hole vent field.

Yellowstone Lake bathymetry showing the location of the Deep Hole vent field.  Inset shows locations of heat-flux measurements (red dots) in the Deep Hole vent field.

Research Vessel Annie and Remotely Operated Vehicle Yogi
Research Vessel Annie and Remotely Operated Vehicle Yogi
Research Vessel Annie and Remotely Operated Vehicle Yogi
Research Vessel Annie and Remotely Operated Vehicle Yogi

Research Vessel Annie and Remotely Operated Vehicle Yogi.  a) R/V Annie on Yellowstone Lake operated by the Global Foundation for Ocean Exploration.  Image Rob Harris, OSU.  b) ROV Yogi with GFOE President Dave Lovalvo.  Image Todd Gregory, GFOE.  C) ROV Yogi and 1-m heat flow probe.  This pr

Research Vessel Annie and Remotely Operated Vehicle Yogi.  a) R/V Annie on Yellowstone Lake operated by the Global Foundation for Ocean Exploration.  Image Rob Harris, OSU.  b) ROV Yogi with GFOE President Dave Lovalvo.  Image Todd Gregory, GFOE.  C) ROV Yogi and 1-m heat flow probe.  This pr

USGS Earth Explorer web tool showing an example of the geographic area and date range search criteria for Yellowstone
Earth Explorer web tool showing example of search criteria
Earth Explorer web tool showing example of search criteria
Earth Explorer web tool showing example of search criteria

Screen shot of the USGS Earth Explorer web tool showing an example of the geographic area and date range search criteria for Yellowstone.

Screen shot of the USGS Earth Explorer web tool showing an example of the geographic area and date range search criteria for Yellowstone.

USGS Earth Explorer screen shot showing example of selecting the Data Sets to search
USGS Earth Explorer screen shot showing Data Sets to search example
USGS Earth Explorer screen shot showing Data Sets to search example
USGS Earth Explorer screen shot showing Data Sets to search example

USGS Earth Explorer screen shot showing example of selecting the Data Sets to search.

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