Large landslides on the southwest side of Mt. King George. The main debris lobe on the right is approximately 1000 m wide. The elevation difference between the peak and the glacier is approximately 1900 m. Photo courtesy of Yukon Geological Survey.
Images
Browse our photos of landslide research and post-landslide investigations.
Large landslides on the southwest side of Mt. King George. The main debris lobe on the right is approximately 1000 m wide. The elevation difference between the peak and the glacier is approximately 1900 m. Photo courtesy of Yukon Geological Survey.
Seracs in an icefall on the east side of Mt. Vancouver (4812 m), toppled by shaking. Field of view is approximately 3.5 km wide. Photo courtesy of Yukon Geological Survey.
Seracs in an icefall on the east side of Mt. Vancouver (4812 m), toppled by shaking. Field of view is approximately 3.5 km wide. Photo courtesy of Yukon Geological Survey.
Collapsed snow bridges on crevasse field on the Hubbard Glacier between McArthur Peak and Mt. King George. Photo courtesy of Yukon Geological Survey.
Collapsed snow bridges on crevasse field on the Hubbard Glacier between McArthur Peak and Mt. King George. Photo courtesy of Yukon Geological Survey.
12-12-25 Mt. Vancouver and Mt. Logan Arete Landslides
12-12-25 Mt. Vancouver and Mt. Logan Arete LandslidesCollapsed snow bridges on crevasse field on the Hubbard Glacier between McArthur Peak and Mt. King George. Photo courtesy of Yukon Geological Survey.
12-12-25 Mt. Vancouver and Mt. Logan Arete Landslides
12-12-25 Mt. Vancouver and Mt. Logan Arete LandslidesCollapsed snow bridges on crevasse field on the Hubbard Glacier between McArthur Peak and Mt. King George. Photo courtesy of Yukon Geological Survey.
Landslides on the west side of Mt. King George. The central debris lobe is 500 m wide. Photo courtesy of Yukon Geological Survey.
Landslides on the west side of Mt. King George. The central debris lobe is 500 m wide. Photo courtesy of Yukon Geological Survey.
12-12-25 McArthur Peak East Face Landslides & Avalanches
12-12-25 McArthur Peak East Face Landslides & AvalanchesLandslides and avalanches on the east side of McArthur Peak. The left-hand debris lobe is 1100 m wide, and the right-hand debris lobe is 1500 m wide. The elevation difference between the peak and the glacier is approximately 1500 m. Photo courtesy of Yukon Geological Survey.
12-12-25 McArthur Peak East Face Landslides & Avalanches
12-12-25 McArthur Peak East Face Landslides & AvalanchesLandslides and avalanches on the east side of McArthur Peak. The left-hand debris lobe is 1100 m wide, and the right-hand debris lobe is 1500 m wide. The elevation difference between the peak and the glacier is approximately 1500 m. Photo courtesy of Yukon Geological Survey.
Snow avalanche on the north side of Mt. King George. The debris lobe is 1800 m long and runs up onto the hillside across the valley. Photo courtesy of Yukon Geological Survey.
Snow avalanche on the north side of Mt. King George. The debris lobe is 1800 m long and runs up onto the hillside across the valley. Photo courtesy of Yukon Geological Survey.
Snow avalanches in the valley on the east side of McArthur Peak. Photo courtesy of Yukon Geological Survey.
Snow avalanches in the valley on the east side of McArthur Peak. Photo courtesy of Yukon Geological Survey.
Large snow avalanche in valley east of McArthur Peak. Debris lobe is 1500 m wide. Photo courtesy of Yukon Geological Survey.
Large snow avalanche in valley east of McArthur Peak. Debris lobe is 1500 m wide. Photo courtesy of Yukon Geological Survey.
Recent landslide on the east face of Mt. King George (3741 m) with clouds of dust from ongoing rockfall. Debris descended over 1500 m to the glacier below. Photo courtesy of Yukon Geological Survey.
Recent landslide on the east face of Mt. King George (3741 m) with clouds of dust from ongoing rockfall. Debris descended over 1500 m to the glacier below. Photo courtesy of Yukon Geological Survey.
12-12-25 Mt. King George Landslide with Large Runout
12-12-25 Mt. King George Landslide with Large RunoutLarge landslide on the southwest side of Mt. King George. The main debris lobe is 1800 m wide, and material would have travelled approximately 6 km from the source area (triangular scar) in the background. Photo courtesy of Yukon Geological Survey.
12-12-25 Mt. King George Landslide with Large Runout
12-12-25 Mt. King George Landslide with Large RunoutLarge landslide on the southwest side of Mt. King George. The main debris lobe is 1800 m wide, and material would have travelled approximately 6 km from the source area (triangular scar) in the background. Photo courtesy of Yukon Geological Survey.
Landslides on the northeast side of Mt. King George with clouds of rock dust in the air caused by ongoing activity. Elevation difference between the peak and the glacier is at least 1700 m. Also note the numerous collapsed snow bridges on the glacier. Photo courtesy of Yukon Geological Survey.
Landslides on the northeast side of Mt. King George with clouds of rock dust in the air caused by ongoing activity. Elevation difference between the peak and the glacier is at least 1700 m. Also note the numerous collapsed snow bridges on the glacier. Photo courtesy of Yukon Geological Survey.
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Satellite Imagery GIF
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Satellite Imagery GIFAnimation of Sentinel-1 radar backscatter satellite imagery from November 28th and December 9th, 2025, showing the changes in surface roughness after the M7.0 Hubbard Glacier Earthquake. The lighter regions have rougher surface areas. The colored points correspond to preliminary mapping of potential mass movements.
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Satellite Imagery GIF
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Satellite Imagery GIFAnimation of Sentinel-1 radar backscatter satellite imagery from November 28th and December 9th, 2025, showing the changes in surface roughness after the M7.0 Hubbard Glacier Earthquake. The lighter regions have rougher surface areas. The colored points correspond to preliminary mapping of potential mass movements.
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Satellite Imagery
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Satellite ImageryLandsat 9 true color, pan-sharpened satellite image collected on December 10, 2025, showing landslides triggered by the M7.0 Hubbard Glacier Earthquake on the slopes of Mount King George. Landslide points were mapped from SAR change detection.
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Satellite Imagery
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Satellite ImageryLandsat 9 true color, pan-sharpened satellite image collected on December 10, 2025, showing landslides triggered by the M7.0 Hubbard Glacier Earthquake on the slopes of Mount King George. Landslide points were mapped from SAR change detection.
12-11-25 Satellite Imagery of Surface Roughness at Hubbard Glacier
12-11-25 Satellite Imagery of Surface Roughness at Hubbard GlacierA) Map of Sentinel-1 radar surface roughness change with photo locations and azimuths. B) Landsat 8 optical imagery from December 11, 2025, with photo locations and azimuths.
12-11-25 Satellite Imagery of Surface Roughness at Hubbard Glacier
12-11-25 Satellite Imagery of Surface Roughness at Hubbard GlacierA) Map of Sentinel-1 radar surface roughness change with photo locations and azimuths. B) Landsat 8 optical imagery from December 11, 2025, with photo locations and azimuths.
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Overview Map
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Overview MapOverview maps at the same scale showing the epicenter of the M7.0 Hubbard Glacier Earthquake and modeled peak ground acceleration contours. A) shows the probability of landslides triggered by the earthquake and mapped faults, and B) shows the locations of landslides mapped using synthetic aperture radar (SAR) change detection.
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Overview Map
2025 M7.0 Hubbard Glacier Earthquake-Triggered Landslides and Snow Avalanches Overview MapOverview maps at the same scale showing the epicenter of the M7.0 Hubbard Glacier Earthquake and modeled peak ground acceleration contours. A) shows the probability of landslides triggered by the earthquake and mapped faults, and B) shows the locations of landslides mapped using synthetic aperture radar (SAR) change detection.
Upstream view of burned hillslopes in the Elk Fire burn area near Dayton, Wyoming. Burned trees, rocks, and rocky outcrops are visible on the slopes.
Upstream view of burned hillslopes in the Elk Fire burn area near Dayton, Wyoming. Burned trees, rocks, and rocky outcrops are visible on the slopes.
Postfire runoff in the 2024 Elk Fire buran area near Dayton, Wyoming
Postfire runoff in the 2024 Elk Fire buran area near Dayton, WyomingPostfire runoff in the 2024 Elk Fire buran area near Dayton, Wyoming. Near the outlet of a burned watershed, postfire runoff deposited small boulders and mud, flattening the vegetation in this low-relief area.
Postfire runoff in the 2024 Elk Fire buran area near Dayton, Wyoming
Postfire runoff in the 2024 Elk Fire buran area near Dayton, WyomingPostfire runoff in the 2024 Elk Fire buran area near Dayton, Wyoming. Near the outlet of a burned watershed, postfire runoff deposited small boulders and mud, flattening the vegetation in this low-relief area.
Rocks, mud, and woody debris deposited by both flood and debris flow processes are visible in this upstream section of watershed burned by the 2024 Elk Fire near Dayton, Wyoming. The coarser material near the far channel edge was carried by a debris flow while the well-sorted finer material in the foreground has properties associated with flood flow.
Rocks, mud, and woody debris deposited by both flood and debris flow processes are visible in this upstream section of watershed burned by the 2024 Elk Fire near Dayton, Wyoming. The coarser material near the far channel edge was carried by a debris flow while the well-sorted finer material in the foreground has properties associated with flood flow.
Debris-flow deposit in the 2024 Elk Fire burn area near Dayton, Wyoming
Debris-flow deposit in the 2024 Elk Fire burn area near Dayton, WyomingDebris-flow deposit in the 2024 Elk Fire burn area near Dayton, Wyoming. A close-up view of a debris-flow deposit located in the upstream section of a burned watershed. This deposit is poorly sorted, and contains mud, gravel, boulders, and woody debris. Damaged bark on the tree in the foreground suggests impact from larger material carried by a fast-moving flow.
Debris-flow deposit in the 2024 Elk Fire burn area near Dayton, Wyoming
Debris-flow deposit in the 2024 Elk Fire burn area near Dayton, WyomingDebris-flow deposit in the 2024 Elk Fire burn area near Dayton, Wyoming. A close-up view of a debris-flow deposit located in the upstream section of a burned watershed. This deposit is poorly sorted, and contains mud, gravel, boulders, and woody debris. Damaged bark on the tree in the foreground suggests impact from larger material carried by a fast-moving flow.
Burned hillslopes in the 2024 Elk Fire burn area near Dayton, Wyoming
Burned hillslopes in the 2024 Elk Fire burn area near Dayton, WyomingA view looking upslope toward the burned hillsides below Dry Fork Ridge in the Bighorn National Forest within the 2024 Elk Fire burn area.
Burned hillslopes in the 2024 Elk Fire burn area near Dayton, Wyoming
Burned hillslopes in the 2024 Elk Fire burn area near Dayton, WyomingA view looking upslope toward the burned hillsides below Dry Fork Ridge in the Bighorn National Forest within the 2024 Elk Fire burn area.