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Images related to Yellowstone Volcano Observatory.

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Beryl Spring's boiling blue pool. Yellowstone
Blue pool of boiling water at Beryl Springs, Yellowstone National Park
Blue pool of boiling water at Beryl Springs, Yellowstone National Park
Blue pool of boiling water at Beryl Springs, Yellowstone National Park

Beryl Spring's strongly boiling blue pool is about 8 m (25 ft) wide and contains high-chloride liquid water with a near-neutral pH. Immediately behind the pool is a loud, hissing fumarole producing a white cloud of steam. USGS Photo by Pat Shanks, 2002.

Beryl Spring's strongly boiling blue pool is about 8 m (25 ft) wide and contains high-chloride liquid water with a near-neutral pH. Immediately behind the pool is a loud, hissing fumarole producing a white cloud of steam. USGS Photo by Pat Shanks, 2002.

Seismic stations used to located the March 30, 2014, M4.8 Norris earthquake in Yellowstone
Seismic stations used to located the March 30, 2014, M4.8 Norris quake
Seismic stations used to located the March 30, 2014, M4.8 Norris quake
Seismic stations used to located the March 30, 2014, M4.8 Norris quake

Station map showing seismograph stations used in the location of the M4.8 earthquake that occurred near Norris Geyser Basin on March 30, 2014.  The yellow star shows the earthquake epicenter.  Red triangles represent seismograph stations with a P-wave arrival pick.  Green triangles represent seismograph stations with both a P-wave and a S-wave arrival

Station map showing seismograph stations used in the location of the M4.8 earthquake that occurred near Norris Geyser Basin on March 30, 2014.  The yellow star shows the earthquake epicenter.  Red triangles represent seismograph stations with a P-wave arrival pick.  Green triangles represent seismograph stations with both a P-wave and a S-wave arrival

Seismograms of the magnitude 4.8 earthquake that occurred in Yellowstone on March 30, 2014
Seismograms of the M4.8 earthquake in Yellowstone March 30, 2014
Seismograms of the M4.8 earthquake in Yellowstone March 30, 2014
Seismograms of the M4.8 earthquake in Yellowstone March 30, 2014

Seismograms of the magnitude 4.8 earthquake that occurred in Yellowstone on March 30, 2014, as recorded by seismometers at station YNR near Norris Geyser Basin.  Top: Seismogram recorded on the accelerometer, which stayed on scale during the shaking.  Bottom: “Clipped” seismogram recorded on the broadband seismometer, which went off scale during the shakin

Seismograms of the magnitude 4.8 earthquake that occurred in Yellowstone on March 30, 2014, as recorded by seismometers at station YNR near Norris Geyser Basin.  Top: Seismogram recorded on the accelerometer, which stayed on scale during the shaking.  Bottom: “Clipped” seismogram recorded on the broadband seismometer, which went off scale during the shakin

Telemetry system of the Yellowstone Seismic Network
Telemetry system of the Yellowstone Seismic Network
Telemetry system of the Yellowstone Seismic Network
Telemetry system of the Yellowstone Seismic Network

Telemetry system of the Yellowstone Seismic Network operated by the University of Utah Seismograph Stations.  Black arrows show analog telemetry and pink arrows show digital telemetry.  The green line is the boundary of Yellowstone National Park.

Telemetry system of the Yellowstone Seismic Network operated by the University of Utah Seismograph Stations.  Black arrows show analog telemetry and pink arrows show digital telemetry.  The green line is the boundary of Yellowstone National Park.

Seismograms showing M4.8 earthquake near Norris Geyser Basin in Yellowstone on March 30, 201
Seismograms showing Yellowstone M4.8 earthquake on March 30, 2014
Seismograms showing Yellowstone M4.8 earthquake on March 30, 2014
Seismograms showing Yellowstone M4.8 earthquake on March 30, 2014

Record section showing horizontal component seismograms from stations in the Yellowstone region from the M4.8 earthquake that occurred near Norris Geyser Basin on March 30, 2014.  The vertical blue dashed line represents the origin time of the earthquake at 12:34:39.16 UTC.  The red line represents the P-wave arrival with a velocity of ~5.7 km/s.  The

Record section showing horizontal component seismograms from stations in the Yellowstone region from the M4.8 earthquake that occurred near Norris Geyser Basin on March 30, 2014.  The vertical blue dashed line represents the origin time of the earthquake at 12:34:39.16 UTC.  The red line represents the P-wave arrival with a velocity of ~5.7 km/s.  The

Seismic record of Yellowstone station YHB for the M4.8 earthquake of March 30, 2014
Record from Yellowstone station YHB for M4.8 quake of Mar 30, 2014
Record from Yellowstone station YHB for M4.8 quake of Mar 30, 2014
Record from Yellowstone station YHB for M4.8 quake of Mar 30, 2014

3-component seismograms from station YHB for the M4.8 earthquake that occurred near Norris Geyser Basin on March 30, 2014, and showing the P-wave arrival pick (red) and the S-wave arrival pick (green) as determined by UUSS analysts.  The vertical blue dashed line represents the origin time of the earthquake at 12:34:39.16 UTC.

3-component seismograms from station YHB for the M4.8 earthquake that occurred near Norris Geyser Basin on March 30, 2014, and showing the P-wave arrival pick (red) and the S-wave arrival pick (green) as determined by UUSS analysts.  The vertical blue dashed line represents the origin time of the earthquake at 12:34:39.16 UTC.

Photos taken from helicopter over Mammoth Hot Springs
Photos taken from helicopter over Mammoth Hot Springs
Photos taken from helicopter over Mammoth Hot Springs
Photos taken from helicopter over Mammoth Hot Springs

Top: Examples of some of the photos taken from helicopter over Mammoth Hot Springs in September 2013. Photos taken by Hank Heasler. Bottom: Hill-shade image calculated from the 2013 DEM over Mammoth Hot Springs and that was derived from a series of overlapping photos using Structure-from-Motion photogrammetry.

Top: Examples of some of the photos taken from helicopter over Mammoth Hot Springs in September 2013. Photos taken by Hank Heasler. Bottom: Hill-shade image calculated from the 2013 DEM over Mammoth Hot Springs and that was derived from a series of overlapping photos using Structure-from-Motion photogrammetry.

Huckleberry Ridge Tuff deposit, Yellowstone
Huckleberry Ridge Tuff deposit, Yellowstone
Huckleberry Ridge Tuff deposit, Yellowstone
Huckleberry Ridge Tuff deposit, Yellowstone

Huckleberry Ridge Tuff deposit exposed on Mt. Everts, near the northern boundary of Yellowstone National Park. The deposit was created by ash falling from the plume early in the eruption sequence, 2.08 million years ago. Photo by Madison Myers, Montana State University.

Huckleberry Ridge Tuff deposit exposed on Mt. Everts, near the northern boundary of Yellowstone National Park. The deposit was created by ash falling from the plume early in the eruption sequence, 2.08 million years ago. Photo by Madison Myers, Montana State University.

Photo of the Old Faithful Inn lobby
Photo of the Old Faithful Inn lobby
Photo of the Old Faithful Inn lobby
Photo of the Old Faithful Inn lobby

Photo of the Old Faithful Inn lobby, which features a six-story-tall fireplace and chimney made from rocks quarried form a rhyolite lava flow in Yellowstone.  NPS photo by Jim Peaco, July 22, 2013.

Photo of the Old Faithful Inn lobby, which features a six-story-tall fireplace and chimney made from rocks quarried form a rhyolite lava flow in Yellowstone.  NPS photo by Jim Peaco, July 22, 2013.

Huckleberry Ridge Tuff fall deposits at Mount Everts, Yellowstone
Huckleberry Ridge Tuff fall deposits at Mount Everts, Yellowstone
Huckleberry Ridge Tuff fall deposits at Mount Everts, Yellowstone
Huckleberry Ridge Tuff fall deposits at Mount Everts, Yellowstone

View of ripples caused by wind winnowing of the Huckleberry Ridge Tuff fall deposits at Mount Everts. Other layers below show evidence for rain and hail landing with the falling ash. Scale in centimeters and inches.

View of ripples caused by wind winnowing of the Huckleberry Ridge Tuff fall deposits at Mount Everts. Other layers below show evidence for rain and hail landing with the falling ash. Scale in centimeters and inches.

A geyser basin and hill in the distance, with pine trees in the foreground, under a mostly cloudy sky
Image of Biscuit Basin (visible between the trees) captured by the YVO mobile webcam on June 17, 2012
Image of Biscuit Basin (visible between the trees) captured by the YVO mobile webcam on June 17, 2012
View north along U.S. Route 20 from near Ashton, ID, at the margin of the Huckleberry Ridge Tuff in the distance
View north along U.S. Route 20 from near Ashton, ID, at the margin of the Huckleberry Ridge Tuff in the distance
View north along U.S. Route 20 from near Ashton, ID, at the margin of the Huckleberry Ridge Tuff in the distance
View north along U.S. Route 20 from near Ashton, ID, at the margin of the Huckleberry Ridge Tuff in the distance

Google maps photo taken just north of Ashton, ID, along U.S. Route 20. The photo was taken looking north towards Island Park, ID. The forested ridge in the distance marks the margin of a caldera that formed 2.08 million years ago, when the Huckleberry Ridge Tuff erupted.

black bulbous rock sample on white tubing resting on a barren, pale, sandy surface
Sulfur “cinder” from Cinder Pool in Norris Geyser Basin, Yellowstone National Park
Sulfur “cinder” from Cinder Pool in Norris Geyser Basin, Yellowstone National Park
Sulfur “cinder” from Cinder Pool in Norris Geyser Basin, Yellowstone National Park

Sulfur “cinder” attached to a sampling tube that was extracted from Cinder Pool in Norris Geyser Basin.  The “cinder” is sulfur that existed as a molten layer at the bottom of the pool and was carried upward by gas and solidified.  The black color is due to the presence of finely dispersed pyrite.

Sulfur “cinder” attached to a sampling tube that was extracted from Cinder Pool in Norris Geyser Basin.  The “cinder” is sulfur that existed as a molten layer at the bottom of the pool and was carried upward by gas and solidified.  The black color is due to the presence of finely dispersed pyrite.

Mud Geyser, Yellowstone
Mud Geyser, Yellowstone
Mud Geyser, Yellowstone
Mud Geyser, Yellowstone

Steam rises from the Mud Geyser fumarole on the northeast side of the Mud Volcano thermal area in Yellowstone National Park. Gas that discharges from Mud Geyser has the most magmatic character of any sampled feature in Yellowstone.

Steam rises from the Mud Geyser fumarole on the northeast side of the Mud Volcano thermal area in Yellowstone National Park. Gas that discharges from Mud Geyser has the most magmatic character of any sampled feature in Yellowstone.

Looking west from the intersection of U.S. Route 20 and Old Hwy 47, in Idaho, at lava flows associated with the Henrys Fork caldera
Looking west from the intersection of U.S. Route 20 and Old Hwy 47, in Idaho, at lava flows associated with the Henrys Fork caldera
Looking west from the intersection of U.S. Route 20 and Old Hwy 47, in Idaho, at lava flows associated with the Henrys Fork caldera
Looking west from the intersection of U.S. Route 20 and Old Hwy 47, in Idaho, at lava flows associated with the Henrys Fork caldera

Google Maps photo taken at the intersection of U.S. Route 20 and Old Hwy 47 in Idaho, looking west. The tops of Moonshine Mountain and Silver Lake dome, rhyolite lava flows located inside the caldera, are indicated with a dashed black line.

Two elk standing in from of burned trees, with a lake shoreline in the distance under a cloudy sky
Image of elk captured by the YVO mobile webcam on June 25, 2010
Image of elk captured by the YVO mobile webcam on June 25, 2010
Image of elk captured by the YVO mobile webcam on June 25, 2010

Image of elk captured by the YVO mobile webcam on June 25, 2010, when it was positioned atop Lake Butte with a view of the north side of Yellowstone Lake.

Cross section through the trunk of a Yellowstone lodgepole pine
Cross section through the trunk of a Yellowstone lodgepole pine
Cross section through the trunk of a Yellowstone lodgepole pine
Cross section through the trunk of a Yellowstone lodgepole pine

Cross section through the trunk of a lodgepole pine tree from Cooking Hillside near Mud Volcano, Yellowstone National Park.  The earliest date for this tree is 1916 and it died in 1990. Spongy white-gray areas are foam insulation that was injected into the sample to reinforce the structure of the wood.

Cross section through the trunk of a lodgepole pine tree from Cooking Hillside near Mud Volcano, Yellowstone National Park.  The earliest date for this tree is 1916 and it died in 1990. Spongy white-gray areas are foam insulation that was injected into the sample to reinforce the structure of the wood.

Grey’s Landing Ignimbrite in Idaho part of Yellowstone Hotspot
Grey’s Landing Ignimbrite in Idaho part of Yellowstone Hotspot
Grey’s Landing Ignimbrite in Idaho part of Yellowstone Hotspot
Grey’s Landing Ignimbrite in Idaho part of Yellowstone Hotspot

The Grey’s Landing Ignimbrite in Idaho (Dr. Thomas Knott, of the University of Leicester, England, gives the scale of the cliff). The entire cliff (and more not seen!) would have been deposited in a matter of moments as it welded to the land surface during a super eruption about 8.7 million years ago.

The Grey’s Landing Ignimbrite in Idaho (Dr. Thomas Knott, of the University of Leicester, England, gives the scale of the cliff). The entire cliff (and more not seen!) would have been deposited in a matter of moments as it welded to the land surface during a super eruption about 8.7 million years ago.

Geysers on the south pole of Saturn's moon Enceladus
Geysers on the south pole of Saturn's moon Enceladus
Geysers on the south pole of Saturn's moon Enceladus
Geysers on the south pole of Saturn's moon Enceladus

This two-image mosaic is one of the highest resolution views acquired by the Cassini spacecraft during its imaging survey of the geyser basin capping the southern hemisphere of Saturn's moon Enceladus. 

This two-image mosaic is one of the highest resolution views acquired by the Cassini spacecraft during its imaging survey of the geyser basin capping the southern hemisphere of Saturn's moon Enceladus. 

Blue pools surrounded by beige and reddish mud and otherwise mostly barren ground. Pine trees and a lake are in the distance.
Overview of central West Thumb Geyser Basin
Overview of central West Thumb Geyser Basin
Overview of central West Thumb Geyser Basin

Overview of central West Thumb Geyser Basin.  USGS photo by Pat Shanks, 2009. 

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