Skip to main content
U.S. flag

An official website of the United States government

Images

Images intro.
Filter Total Items: 366
Gibbon River in Gibbon Meadows immediate following the 1975 Yellowstone National Park earthquake
Gibbon River in Gibbon Meadows immediate following the 1975 Yellowstone National Park earthquake
Gibbon River in Gibbon Meadows immediate following the 1975 Yellowstone National Park earthquake
Gibbon River in Gibbon Meadows immediate following the 1975 Yellowstone National Park earthquake

Gibbon River in Gibbon Meadows immediate following the June 30, 1975, magnitude-6 Yellowstone National Park earthquake.  The muddy color is due to increased sediment load.  NPS photo by Rick Hutchinson.

Gibbon River in Gibbon Meadows immediate following the June 30, 1975, magnitude-6 Yellowstone National Park earthquake.  The muddy color is due to increased sediment load.  NPS photo by Rick Hutchinson.

Muddy thermal discharge near Congress Pool in Norris Geyser Basin following the 1975 Yellowstone National Park earthquake
Muddy thermal discharge near Congress Pool in Norris Geyser Basin following the 1975 Yellowstone National Park earthquake
Muddy thermal discharge near Congress Pool in Norris Geyser Basin following the 1975 Yellowstone National Park earthquake
Muddy thermal discharge near Congress Pool in Norris Geyser Basin following the 1975 Yellowstone National Park earthquake

Muddy thermal discharge (foreground) near Congress Pool (middle ground) in Norris Geyser Basin following the June 30, 1975, magnitude-6 Yellowstone National Park earthquake,  NPS photo by Rick Hutchinson.

Muddy thermal discharge (foreground) near Congress Pool (middle ground) in Norris Geyser Basin following the June 30, 1975, magnitude-6 Yellowstone National Park earthquake,  NPS photo by Rick Hutchinson.

Index map showing locations of 1967–1968 research drill holes in Yellowstone National Park
Index map showing locations of 1967–1968 research drill holes in Yellowstone National Park
Index map showing locations of 1967–1968 research drill holes in Yellowstone National Park
Index map showing locations of 1967–1968 research drill holes in Yellowstone National Park

Map: Index map showing locations of 1967–1968 research drill holes in Yellowstone National Park. Taken from USGS Bulletin 1967.

Correlation of Map Units chart from the Surficial Geologic Map of Yellowstone National Park
Correlation of Map Units chart from the Surficial Geologic Map of Yellowstone National Park
Correlation of Map Units chart from the Surficial Geologic Map of Yellowstone National Park
Correlation of Map Units chart from the Surficial Geologic Map of Yellowstone National Park

An example Correlation of Map Units chart from the Surficial Geologic Map of Yellowstone National Park (U.S. Geological Survey, 1972) that demonstrates a typical classification scheme for surficial units.

Shoshone Tukudika (Sheepeater) at Medicine Lodge Creek, Idaho, in 1871.
Shoshone Tukudika (Sheepeater) at Medicine Lodge Creek, Idaho, in 1871
Shoshone Tukudika (Sheepeater) at Medicine Lodge Creek, Idaho, in 1871
Shoshone Tukudika (Sheepeater) at Medicine Lodge Creek, Idaho, in 1871

Shoshone Tukudika (Sheepeater) men, women, and children at Medicine Lodge Creek, Idaho, in 1871. This photo was taken by U.S. Geological Survey employee William Henry Jackson.  Courtesy of National Park Service, Yellowstone National Park, YELL 8151.

Shoshone Tukudika (Sheepeater) men, women, and children at Medicine Lodge Creek, Idaho, in 1871. This photo was taken by U.S. Geological Survey employee William Henry Jackson.  Courtesy of National Park Service, Yellowstone National Park, YELL 8151.

Pearlette Ash in Comanche County, Kansas
Pearlette Ash in Comanche County, Kansas
Pearlette Ash in Comanche County, Kansas
Pearlette Ash in Comanche County, Kansas

Pearlette Ash in Comanche County, Kansas.  Kansas Geological Survey photo by Grace Muilenburg, April 1969 (https://chasm.kgs.ku.edu/ords/pubcat.phd2.View_Photo?f_id=3165).

Eruptions from drill rods during research drilling in Yellowstone National Park, 1967–1968
Eruptions from drill rods during research drilling in Yellowstone National Park, 1967–1968
Eruptions from drill rods during research drilling in Yellowstone National Park, 1967–1968
Eruptions from drill rods during research drilling in Yellowstone National Park, 1967–1968

Eruptions from drill rods during research drilling in Yellowstone National Park, 1967–1968. Left panel shows initial explosive eruption of water-steam mixture from open drill pipe in drill hole Y-5 (Rabbit Creek) on August 20, 1967.

Eruptions from drill rods during research drilling in Yellowstone National Park, 1967–1968. Left panel shows initial explosive eruption of water-steam mixture from open drill pipe in drill hole Y-5 (Rabbit Creek) on August 20, 1967.

Bob Fournier (left) and Don White (right) at the Y3 drilling site in Yellowstone National Park
Bob Fournier (left) and Don White (right) at the Y3 drilling site in Yellowstone National Park
Bob Fournier (left) and Don White (right) at the Y3 drilling site in Yellowstone National Park
Bob Fournier (left) and Don White (right) at the Y3 drilling site in Yellowstone National Park

Bob Fournier (left) and Don White (right) at the Y3 drilling site in Pocket Basin adjacent to Ojo Caliente, Lower Geyser Basin, Yellowstone National Park, in 1967.  USGS Photo.

Bob Fournier (left) and Don White (right) at the Y3 drilling site in Pocket Basin adjacent to Ojo Caliente, Lower Geyser Basin, Yellowstone National Park, in 1967.  USGS Photo.

Plot showing the solubility of amorphous silica in water as a function of temperature
Plot showing the solubility of amorphous silica in water as a function of temperature
Plot showing the solubility of amorphous silica in water as a function of temperature
Plot showing the solubility of amorphous silica in water as a function of temperature

The solubility of amorphous silica (solid silica with no crystal structure) in water as a function of temperature. When deep groundwater flows through hot rhyolite it can remove silica from the rhyolite (dissolve silica).

The solubility of amorphous silica (solid silica with no crystal structure) in water as a function of temperature. When deep groundwater flows through hot rhyolite it can remove silica from the rhyolite (dissolve silica).

Lower Geyser Basin from Great Fountain Geyser
Lower Geyser Basin from Great Fountain Geyser
Lower Geyser Basin from Great Fountain Geyser
Lower Geyser Basin from Great Fountain Geyser

View of Lower Geyser Basin. Note active thermal pools (Great Fountain Geyser) in the foreground with thermal grasslands—kept treeless by hot soils—and lodgepole pine forest in the distance. Photo by George Marler, 1959.

View of Lower Geyser Basin. Note active thermal pools (Great Fountain Geyser) in the foreground with thermal grasslands—kept treeless by hot soils—and lodgepole pine forest in the distance. Photo by George Marler, 1959.

Aerial view of Black Opal Pool, Black Diamond Pool, and part of Wall Pool, all in Biscuit Basin, Yellowstone National Park, taken in 1959
Aerial view of Black Opal Pool, Black Diamond Pool, and part of Wall Pool, all in Biscuit Basin, Yellowstone National Park, taken in 1959
Aerial view of Black Opal Pool, Black Diamond Pool, and part of Wall Pool, all in Biscuit Basin, Yellowstone National Park, taken in 1959
Aerial view of Black Opal Pool, Black Diamond Pool, and part of Wall Pool, all in Biscuit Basin, Yellowstone National Park, taken in 1959

Aerial view of Black Opal Pool, Black Diamond Pool, and part of Wall Pool, all in Biscuit Basin, Yellowstone National Park, taken in 1959 sometime after the Hebgen Lake earthquake (which occurred on August 17 of that year).

Aerial view of Black Opal Pool, Black Diamond Pool, and part of Wall Pool, all in Biscuit Basin, Yellowstone National Park, taken in 1959 sometime after the Hebgen Lake earthquake (which occurred on August 17 of that year).

Dragline work to lower the outlet channel of Earthquake Lake on October 18, 1959
Dragline working to lower the outlet channel of Earthquake Lake on October 18, 1959
Dragline working to lower the outlet channel of Earthquake Lake on October 18, 1959
Dragline working to lower the outlet channel of Earthquake Lake on October 18, 1959

Dragline work to lower the outlet channel of Earthquake Lake on October 18, 1959. The tripod on the hill at center left is one of five lighting plants that allowed nighttime work. Note the “bathtub ring” of killed trees along the shoreline marking the high stand of Earthquake Lake before lowering of the outlet channel. Photo by Mrs. Steven W. Nile (Dr.

Dragline work to lower the outlet channel of Earthquake Lake on October 18, 1959. The tripod on the hill at center left is one of five lighting plants that allowed nighttime work. Note the “bathtub ring” of killed trees along the shoreline marking the high stand of Earthquake Lake before lowering of the outlet channel. Photo by Mrs. Steven W. Nile (Dr.

View of the Madison Slide on August 21, 1959 with rapidly filling Earthquake Lake
View of the Madison Slide on August 21, 1959 with rapidly filling Earthquake Lake
View of the Madison Slide on August 21, 1959 with rapidly filling Earthquake Lake
View of the Madison Slide on August 21, 1959 with rapidly filling Earthquake Lake

View of the Madison Slide on August 21, 1959 with rapidly filling Earthquake Lake. Rock Creek Campground was near the flooded trees. Camping gear was left behind by survivors who sought high ground following the slide. Photo by Professor William B. Hall, Montana School of Mines Geology Department.

View of the Madison Slide on August 21, 1959 with rapidly filling Earthquake Lake. Rock Creek Campground was near the flooded trees. Camping gear was left behind by survivors who sought high ground following the slide. Photo by Professor William B. Hall, Montana School of Mines Geology Department.

Irving Friedman (left) and William D. Long in 1958 in a USGS laboratory in Washington, D.C.
Irving Friedman (left) and William D. Long in 1958 in a USGS laboratory in Washington, D.C.
Irving Friedman (left) and William D. Long in 1958 in a USGS laboratory in Washington, D.C.
Irving Friedman (left) and William D. Long in 1958 in a USGS laboratory in Washington, D.C.

Irving Friedman (left) and William D. Long in 1958 carrying out experiments with welded volcanic tuffs at a USGS laboratory in Washington, D.C.

Ash plume from Paracutin Volcano, Mexico, sometime during 1946-1948
Ash plume from Paracutin Volcano, Mexico, sometime during 1946-1948
Ash plume from Paracutin Volcano, Mexico, sometime during 1946-1948
Ash plume from Paracutin Volcano, Mexico, sometime during 1946-1948

An ash plume rises from the summit crater of Parícutin sometime during 1946-48. A thick ash deposit covers the foreground. An estimated 4,500 cattle and 550 horses died during the heavy ashfall in the early months of the eruption, devastating the local people who depended on the animals for food, plowing, and transportation.

An ash plume rises from the summit crater of Parícutin sometime during 1946-48. A thick ash deposit covers the foreground. An estimated 4,500 cattle and 550 horses died during the heavy ashfall in the early months of the eruption, devastating the local people who depended on the animals for food, plowing, and transportation.

Ansel Adams photo of the Snake River and Teton Range
Ansel Adams photo of the Snake River and Teton Range
Ansel Adams photo of the Snake River and Teton Range
Ansel Adams photo of the Snake River and Teton Range

The Snake River flowing below the Teton Range. Photo by Ansel Adams, 1942, public domain, https://catalog.archives.gov/id/519904.

Visitors observing Beryl Spring, Yellowstone National Park, in 1923
Visitors observing Beryl Spring, Yellowstone National Park, in 1923
Visitors observing Beryl Spring, Yellowstone National Park, in 1923
Visitors observing Beryl Spring, Yellowstone National Park, in 1923

Visitors observing Beryl Spring from the side of the road in 1923, prior to the construction that breached its sinter cap and altered the spring’s characteristics. From the National Park Service archives, retrieved by M.A. Bellingham.

Visitors observing Beryl Spring from the side of the road in 1923, prior to the construction that breached its sinter cap and altered the spring’s characteristics. From the National Park Service archives, retrieved by M.A. Bellingham.

Black and while photo if a valley with numerous scattered steam vents and a mountain range in the distance.  Tents are in the foreground.
Campsite of Griggs expedition of 1917 in the Valley of 10,000 smokes, Alaska
Campsite of Griggs expedition of 1917 in the Valley of 10,000 smokes, Alaska
Campsite of Griggs expedition of 1917 in the Valley of 10,000 smokes, Alaska

Campsite of Griggs expedition of 1917 on bench at north toe of Mount Cerberus near Katmai, Alaska. View to north-northwest down Lethe arm of the Valley of Ten Thousand Smokes. Photo courtesy of National Geographic Society.

Campsite of Griggs expedition of 1917 on bench at north toe of Mount Cerberus near Katmai, Alaska. View to north-northwest down Lethe arm of the Valley of Ten Thousand Smokes. Photo courtesy of National Geographic Society.

The Fountain Hotel with Leather Pool in the foreground, Yellowstone National Park
The Fountain Hotel with Leather Pool in the foreground, Yellowstone National Park
The Fountain Hotel with Leather Pool in the foreground, Yellowstone National Park
The Fountain Hotel with Leather Pool in the foreground, Yellowstone National Park

The Fountain Hotel with Leather Pool in the foreground and the hot water pipe visible in the meadow. Photo by JP Clum Lantern. Date unknown. Public domain in YELL photo archives (https://www.nps.gov/features/yell/slidefile/history/1872_1918/structures/Page.htm).

Dr. Hermon Schlundt sampling a pool in Norris Geyser Basin for radium in the early 1900s
Dr. Hermon Schlundt sampling a pool in Norris Geyser Basin for radium in the early 1900s
Dr. Hermon Schlundt sampling a pool in Norris Geyser Basin for radium in the early 1900s
Dr. Hermon Schlundt sampling a pool in Norris Geyser Basin for radium in the early 1900s

Photo of Dr. Hermon Schlundt and a park ranger sampling a pool in Norris Geyser Basin for radium. The description of the photo states that this was the site where the radioactive element thorium was first discovered in the United States. Plate IIIB from Schlundt and Moore, 1909 (USGS Bulletin 395).

Photo of Dr. Hermon Schlundt and a park ranger sampling a pool in Norris Geyser Basin for radium. The description of the photo states that this was the site where the radioactive element thorium was first discovered in the United States. Plate IIIB from Schlundt and Moore, 1909 (USGS Bulletin 395).

Historic colorized photograph of Old Faithful geyser and Old Faithful Inn
Historic colorized photograph of Old Faithful geyser and Old Faithful Inn
Historic colorized photograph of Old Faithful geyser and Old Faithful Inn
Historic colorized photograph of Old Faithful geyser and Old Faithful Inn

Historic colorized photograph of Old Faithful geyser and Old Faithful Inn. Originally, the shingle roofing of the Old Faithful Inn was painted red with a material thought to be a fire retardant. Today, the shingles have a natural wood finish.

Historic colorized photograph of Old Faithful geyser and Old Faithful Inn. Originally, the shingle roofing of the Old Faithful Inn was painted red with a material thought to be a fire retardant. Today, the shingles have a natural wood finish.