Map of North American showing the Continental Divide -- an invisible line that separates the major watersheds flowing to different oceans.
Images
Images related to Yellowstone Volcano Observatory.
Map of North American showing the Continental Divide -- an invisible line that separates the major watersheds flowing to different oceans.
Schematic cross section of the magmatic system underneath Yellowstone Caldera and illustrating the processes of rhyolite formation.
Schematic cross section of the magmatic system underneath Yellowstone Caldera and illustrating the processes of rhyolite formation.
Vertical deformation measured at three caldera systems: Yellowstone, Wyoming (red), Long Valley, California (green), and Campi Flegrei, Italy (blue). Triangles show data collected by leveling, and circles by GPS. All three calderas have gone up and down over time, but the scale of change at Campi Flegrei dwarfs that at Long Valley and Yellowstone.
Vertical deformation measured at three caldera systems: Yellowstone, Wyoming (red), Long Valley, California (green), and Campi Flegrei, Italy (blue). Triangles show data collected by leveling, and circles by GPS. All three calderas have gone up and down over time, but the scale of change at Campi Flegrei dwarfs that at Long Valley and Yellowstone.
Photo and lidar image of Silver Gate landslide, Yellowstone National Park
Photo and lidar image of Silver Gate landslide, Yellowstone National ParkTop image is a view of the Silver Gate landslide complex, near Mammoth Hot Springs, from Bunsen Peak. Bottom shows roughly the same view using lidar data, colored to show elevation highs and lows and shaded by slope. Landslide scarps, roads, trails, and Glen Creek (lower left), all obscured by trees in the photograph, are much more visible in the lidar.
Photo and lidar image of Silver Gate landslide, Yellowstone National Park
Photo and lidar image of Silver Gate landslide, Yellowstone National ParkTop image is a view of the Silver Gate landslide complex, near Mammoth Hot Springs, from Bunsen Peak. Bottom shows roughly the same view using lidar data, colored to show elevation highs and lows and shaded by slope. Landslide scarps, roads, trails, and Glen Creek (lower left), all obscured by trees in the photograph, are much more visible in the lidar.
Landscape change in Lamar Valley, Yellowstone National Park, detected by lidar
Landscape change in Lamar Valley, Yellowstone National Park, detected by lidar3D renderings of elevation change between August 2007 and October 2020 along the Lamar River in the northeast part of Yellowstone National Park. Red regions represent >1 m (3 ft) of elevation loss, yellow indicates no change, and blue represents >1 m (3 ft) of elevation gain.
Landscape change in Lamar Valley, Yellowstone National Park, detected by lidar
Landscape change in Lamar Valley, Yellowstone National Park, detected by lidar3D renderings of elevation change between August 2007 and October 2020 along the Lamar River in the northeast part of Yellowstone National Park. Red regions represent >1 m (3 ft) of elevation loss, yellow indicates no change, and blue represents >1 m (3 ft) of elevation gain.
Spectrogram and waveform of a possible long-period earthquake in Yellowstone
Spectrogram and waveform of a possible long-period earthquake in YellowstoneSpectrogram 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 possible long-period earthquake in Yellowstone
Spectrogram and waveform of a possible long-period earthquake in YellowstoneSpectrogram 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 volcano-tectonic (VT) earthquake in Yellowstone
Spectrogram and waveform of a volcano-tectonic (VT) earthquake in YellowstoneSpectrogram 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 and waveform of a volcano-tectonic (VT) earthquake in Yellowstone
Spectrogram and waveform of a volcano-tectonic (VT) earthquake in YellowstoneSpectrogram 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
Photo and lidar image of Highway 191 landslide, near Yellowstone National Park
Photo and lidar image of Highway 191 landslide, near Yellowstone National ParkTop 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.
Photo and lidar image of Highway 191 landslide, near Yellowstone National Park
Photo and lidar image of Highway 191 landslide, near Yellowstone National ParkTop 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.
Landsat 8 nighttime thermal infrared image of Yellowstone from 28 January 2022
Landsat 8 nighttime thermal infrared image of Yellowstone from 28 January 2022Landsat 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
Landsat 8 nighttime thermal infrared image of Yellowstone from 28 January 2022Landsat 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
Seismic signal of an icequake on Yellowstone Lake from January 24, 2022.
Seismic signal of an icequake on Yellowstone Lake from January 24, 2022.Signals from a suspected icequake that occurred on Yellowstone Lake recorded at Yellowstone Seismic Network stations YLA on Lake Butte (top) and YTP at The Promontory (bottom 3 plots). Plot shows about 2 minutes of data from January 24, 2022, starting at about 7:43:34 p.m. MST. YLA waveform (YLA EHZ) was recorded on a vertical short-period sensor.
Seismic signal of an icequake on Yellowstone Lake from January 24, 2022.
Seismic signal of an icequake on Yellowstone Lake from January 24, 2022.Signals from a suspected icequake that occurred on Yellowstone Lake recorded at Yellowstone Seismic Network stations YLA on Lake Butte (top) and YTP at The Promontory (bottom 3 plots). Plot shows about 2 minutes of data from January 24, 2022, starting at about 7:43:34 p.m. MST. YLA waveform (YLA EHZ) was recorded on a vertical short-period sensor.
Seismic and acoustic waves from the 2022 Hunga Tonga–Hunga Haʻapai eruption recorded by the Yellowstone Seismic Network
Seismic and acoustic waves from the 2022 Hunga Tonga–Hunga Haʻapai eruption recorded by the Yellowstone Seismic NetworkSignals recorded at station YDD in Yellowstone National Park from the 2022 Hunga Tonga–Hunga Haʻapai volcanic eruption. The seismometer at YDD recorded both the direct seismic phase (top left) as well as the atmospheric Lamb Wave that coupled to the ground as it propagated (top right). The infrasound microphone at YDD recorded the atmospheric disturbance
Seismic and acoustic waves from the 2022 Hunga Tonga–Hunga Haʻapai eruption recorded by the Yellowstone Seismic Network
Seismic and acoustic waves from the 2022 Hunga Tonga–Hunga Haʻapai eruption recorded by the Yellowstone Seismic NetworkSignals recorded at station YDD in Yellowstone National Park from the 2022 Hunga Tonga–Hunga Haʻapai volcanic eruption. The seismometer at YDD recorded both the direct seismic phase (top left) as well as the atmospheric Lamb Wave that coupled to the ground as it propagated (top right). The infrasound microphone at YDD recorded the atmospheric disturbance
Seismic and acoustic waves from the 2022 Hunga Tonga–Hunga Haʻapai eruption recorded by the Yellowstone Seismic Network
Seismic and acoustic waves from the 2022 Hunga Tonga–Hunga Haʻapai eruption recorded by the Yellowstone Seismic NetworkSignals recorded at station YDD in Yellowstone National Park from the 2022 Hunga Tonga–Hunga Haʻapai volcanic eruption. The seismometer at YDD recorded both the direct seismic phase (top left) as well as the atmospheric Lamb Wave that coupled to the ground as it propagated (top right). The infrasound microphone at YDD recorded the atmospheric disturbance
Seismic and acoustic waves from the 2022 Hunga Tonga–Hunga Haʻapai eruption recorded by the Yellowstone Seismic Network
Seismic and acoustic waves from the 2022 Hunga Tonga–Hunga Haʻapai eruption recorded by the Yellowstone Seismic NetworkSignals recorded at station YDD in Yellowstone National Park from the 2022 Hunga Tonga–Hunga Haʻapai volcanic eruption. The seismometer at YDD recorded both the direct seismic phase (top left) as well as the atmospheric Lamb Wave that coupled to the ground as it propagated (top right). The infrasound microphone at YDD recorded the atmospheric disturbance
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.
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, WyomingScarp 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 in eastern Grand Teton National Park, Wyoming
Scarp of the Uhl Hill fault in eastern Grand Teton National Park, WyomingScarp 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.
Boiling River near Mammoth Hot Springs, Yellowstone National Park
Boiling River near Mammoth Hot Springs, Yellowstone National ParkBoiling River near Mammoth Hot Springs, Yellowstone National Park. Photo by R. Robinson.
Boiling River near Mammoth Hot Springs, Yellowstone National Park
Boiling River near Mammoth Hot Springs, Yellowstone National ParkBoiling River near Mammoth Hot Springs, Yellowstone National Park. Photo by R. Robinson.
Siliceous sinter in the field and viewed via Scanning Electron Microscope
Siliceous sinter in the field and viewed via Scanning Electron MicroscopeLeft 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.
Siliceous sinter in the field and viewed via Scanning Electron Microscope
Siliceous sinter in the field and viewed via Scanning Electron MicroscopeLeft 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.
Difference in mapped rock units for Mount Everts, Yellowstone National Park
Difference in mapped rock units for Mount Everts, Yellowstone National ParkSimplified 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.
Difference in mapped rock units for Mount Everts, Yellowstone National Park
Difference in mapped rock units for Mount Everts, Yellowstone National ParkSimplified 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.
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, WyomingMap 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, Wyoming
Map of the Uhl Hill fault in eastern Grand Teton National Park, WyomingMap 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.
Reconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, Idaho
Reconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, IdahoReconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, Idaho. National Park Service photo, https://www.nps.gov/articles/000/equus_simplicidens.htm.
Reconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, Idaho
Reconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, IdahoReconstructed fossil horse skeleton found at Hagerman Fossil Beds National Monument, Idaho. National Park Service photo, https://www.nps.gov/articles/000/equus_simplicidens.htm.
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 sheathOn 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.
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 sheathOn 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 ArizonaA 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 ArizonaA 200-kilogram (440-pound) fragment of the Canyon Diablo meteorite that was found at Meteor Crater in Arizona.