As noted above, the new flows have caused withdrawal of magma within Pu‘u ‘Ō‘ō and small collapses of the several cones on the crater floor.
Images
Volcano Hazard Program images.
As noted above, the new flows have caused withdrawal of magma within Pu‘u ‘Ō‘ō and small collapses of the several cones on the crater floor.
The withdrawal of magma from within Pu‘u ‘Ō‘ō, to feed the new flows, has caused minor subsidence of the Pu‘u ‘Ō‘ō crater floor since this morning. This was associated with small collapses at the spatter cones on the crater floor.
The withdrawal of magma from within Pu‘u ‘Ō‘ō, to feed the new flows, has caused minor subsidence of the Pu‘u ‘Ō‘ō crater floor since this morning. This was associated with small collapses at the spatter cones on the crater floor.
Preview image for video: shows the swiftly moving lava in the channelized flow.
Preview image for video: shows the swiftly moving lava in the channelized flow.
breakout points of today's new activity. The lava erupted from sev...
breakout points of today's new activity. The lava erupted from sev...A closer look at the breakout points of today's new activity. The lava erupted from several fissures which broke through, and slightly uplifted, older lava on the cone.
breakout points of today's new activity. The lava erupted from sev...
breakout points of today's new activity. The lava erupted from sev...A closer look at the breakout points of today's new activity. The lava erupted from several fissures which broke through, and slightly uplifted, older lava on the cone.
Spatter coating the area around the breakout point
Spatter coating the area around the breakout pointAnother view of the spatter coating the area around the breakout point.
Spatter coating the area around the breakout point
Spatter coating the area around the breakout pointAnother view of the spatter coating the area around the breakout point.
The withdrawal of magma from within Pu‘u ‘Ō‘ō, to feed the new flows, has caused minor subsidence of the Pu‘u ‘Ō‘ō crater floor since this morning. This was associated with small collapses at the spatter cones on the crater floor. A partial collapse of this cone revealed a small pond of lava just below the surface.
The withdrawal of magma from within Pu‘u ‘Ō‘ō, to feed the new flows, has caused minor subsidence of the Pu‘u ‘Ō‘ō crater floor since this morning. This was associated with small collapses at the spatter cones on the crater floor. A partial collapse of this cone revealed a small pond of lava just below the surface.
As noted above, the new flows have caused withdrawal of magma within Pu‘u ‘Ō‘ō and small collapses of the several cones on the crater floor. Dropping lava levels in the northeast lava pond in Pu‘u ‘Ō‘ō crater caused collapses and enlargement of the pond, which has nearly claimed the time-lapse camera (left side of images) observing the lava pond.
As noted above, the new flows have caused withdrawal of magma within Pu‘u ‘Ō‘ō and small collapses of the several cones on the crater floor. Dropping lava levels in the northeast lava pond in Pu‘u ‘Ō‘ō crater caused collapses and enlargement of the pond, which has nearly claimed the time-lapse camera (left side of images) observing the lava pond.
Hilo was again threatened by a Mauna Loa lava flow in 1882
Hilo was again threatened by a Mauna Loa lava flow in 1882A sketch by Joseph Nāwahī showing the 1881 lava flow approaching Hilo. (Courtesy of National Park Service, Hawai‘i Volcanoes National Park, HAVO 394, Volcano House Guest Register 1873 to 1885, illustration by Joseph Nāwahī, February 21, 1881.)
Hilo was again threatened by a Mauna Loa lava flow in 1882
Hilo was again threatened by a Mauna Loa lava flow in 1882A sketch by Joseph Nāwahī showing the 1881 lava flow approaching Hilo. (Courtesy of National Park Service, Hawai‘i Volcanoes National Park, HAVO 394, Volcano House Guest Register 1873 to 1885, illustration by Joseph Nāwahī, February 21, 1881.)
The Kahauale‘a 2 flow continues its slow, erratic advance
The Kahauale‘a 2 flow continues its slow, erratic advanceJune 17, 2014, photo showing smoke produced by the incursion of the Kahauale‘a 2 flow into native forest 7.0 km (4.3 miles) northeast of Pu‘u ‘Ō‘ō, which is visible in the background.
The Kahauale‘a 2 flow continues its slow, erratic advance
The Kahauale‘a 2 flow continues its slow, erratic advanceJune 17, 2014, photo showing smoke produced by the incursion of the Kahauale‘a 2 flow into native forest 7.0 km (4.3 miles) northeast of Pu‘u ‘Ō‘ō, which is visible in the background.
Teaching International Scientists How to Set Up GPS Monitoring
Teaching International Scientists How to Set Up GPS MonitoringMike Poland (USGS Hawaiian Volcano Observatory) shows Marcellin Kasereka (Goma Volcanological Survey, Democratic Republic of Congo, red jacket) how to adjust the leg of a tripod, while Patricia Ponce (Colombia Geological Survey, white hat) keeps the GPS antenna rod steady.
Chain of Craters Road, Hawaii Volcanoes National Park, Hawaii
Teaching International Scientists How to Set Up GPS Monitoring
Teaching International Scientists How to Set Up GPS MonitoringMike Poland (USGS Hawaiian Volcano Observatory) shows Marcellin Kasereka (Goma Volcanological Survey, Democratic Republic of Congo, red jacket) how to adjust the leg of a tripod, while Patricia Ponce (Colombia Geological Survey, white hat) keeps the GPS antenna rod steady.
Chain of Craters Road, Hawaii Volcanoes National Park, Hawaii
Spattering was occurring at three locations along the edge of the l...
Spattering was occurring at three locations along the edge of the l...Spattering was occurring at three locations along the edge of the lava lake during today's overflight. Spattering like this is common, can occur anywhere around the lake margin (though it most often occurs at the southeast edge), and repeatedly starts and stops. View is toward the southeast.
Spattering was occurring at three locations along the edge of the l...
Spattering was occurring at three locations along the edge of the l...Spattering was occurring at three locations along the edge of the lava lake during today's overflight. Spattering like this is common, can occur anywhere around the lake margin (though it most often occurs at the southeast edge), and repeatedly starts and stops. View is toward the southeast.
The Kahauale‘a 2 flow remains active northeast of Pu‘u ‘Ō‘ō. Today, its most distant tip, in the foreground of this photo, was burning into the forest 7.0 km (4.3 miles) from its source at Pu‘u ‘Ō‘ō. View is toward the southwest.
The Kahauale‘a 2 flow remains active northeast of Pu‘u ‘Ō‘ō. Today, its most distant tip, in the foreground of this photo, was burning into the forest 7.0 km (4.3 miles) from its source at Pu‘u ‘Ō‘ō. View is toward the southwest.
The Kahauale‘a 2 flow remains active northeast of Pu‘u ‘Ō‘ō. Today, its most distant tip, in the foreground of this photo, was burning into the forest 7.0 km (4.3 miles) from its source at Pu‘u ‘Ō‘ō. View is toward the southwest.
The Kahauale‘a 2 flow remains active northeast of Pu‘u ‘Ō‘ō. Today, its most distant tip, in the foreground of this photo, was burning into the forest 7.0 km (4.3 miles) from its source at Pu‘u ‘Ō‘ō. View is toward the southwest.
The fuming spatter cone near the center of the photo is informally called the "Northeast spatter cone", and is the source of the Kahauale‘a 2 flow. Lava reaches the surface at that point and flows directly into a lava tube, which feeds the active flows downslope. View is toward the west.
The fuming spatter cone near the center of the photo is informally called the "Northeast spatter cone", and is the source of the Kahauale‘a 2 flow. Lava reaches the surface at that point and flows directly into a lava tube, which feeds the active flows downslope. View is toward the west.
While the top of the Northeast spatter cone is often open, revealin...
While the top of the Northeast spatter cone is often open, revealin...While the top of the Northeast spatter cone is often open, revealing a small lava pond (see photo from June 6, 2014), today its top was sealed shut. This has happened several times over the past year, and is likely a temporary situation. View is toward the northwest.
While the top of the Northeast spatter cone is often open, revealin...
While the top of the Northeast spatter cone is often open, revealin...While the top of the Northeast spatter cone is often open, revealing a small lava pond (see photo from June 6, 2014), today its top was sealed shut. This has happened several times over the past year, and is likely a temporary situation. View is toward the northwest.
While the top of the Northeast spatter cone is often open, revealin...
While the top of the Northeast spatter cone is often open, revealin...While the top of the Northeast spatter cone is often open, revealing a small lava pond (see photo from June 6, 2014), today its top was sealed shut. This has happened several times over the past year, and is likely a temporary situation. View is toward the northwest.
While the top of the Northeast spatter cone is often open, revealin...
While the top of the Northeast spatter cone is often open, revealin...While the top of the Northeast spatter cone is often open, revealing a small lava pond (see photo from June 6, 2014), today its top was sealed shut. This has happened several times over the past year, and is likely a temporary situation. View is toward the northwest.
The summit lava lake, its surface composed of solidified plates separated by incandescent seams, was about 42 m (138 ft) below the floor of Halema‘uma‘u today. The mostly destroyed visitor overlook is at the left side of the photo, on the rim of Halema‘uma‘u. View is toward the west.
The summit lava lake, its surface composed of solidified plates separated by incandescent seams, was about 42 m (138 ft) below the floor of Halema‘uma‘u today. The mostly destroyed visitor overlook is at the left side of the photo, on the rim of Halema‘uma‘u. View is toward the west.
The fuming spatter cone near the center of the photo is informally called the "Northeast spatter cone", and is the source of the Kahauale‘a 2 flow. Lava reaches the surface at that point and flows directly into a lava tube, which feeds the active flows downslope. View is toward the west.
The fuming spatter cone near the center of the photo is informally called the "Northeast spatter cone", and is the source of the Kahauale‘a 2 flow. Lava reaches the surface at that point and flows directly into a lava tube, which feeds the active flows downslope. View is toward the west.
Spattering was occurring at three locations along the edge of the l...
Spattering was occurring at three locations along the edge of the l...Spattering was occurring at three locations along the edge of the lava lake during today's overflight. Spattering like this is common, can occur anywhere around the lake margin (though it most often occurs at the southeast edge), and repeatedly starts and stops. View is toward the southeast.
Spattering was occurring at three locations along the edge of the l...
Spattering was occurring at three locations along the edge of the l...Spattering was occurring at three locations along the edge of the lava lake during today's overflight. Spattering like this is common, can occur anywhere around the lake margin (though it most often occurs at the southeast edge), and repeatedly starts and stops. View is toward the southeast.
Blue pool of boiling water at Beryl Springs, Yellowstone National Park
Blue pool of boiling water at Beryl Springs, Yellowstone National ParkBeryl 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.
Blue pool of boiling water at Beryl Springs, Yellowstone National Park
Blue pool of boiling water at Beryl Springs, Yellowstone National ParkBeryl 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.
Gas bubbles rising through the lava pond create small blisters in t...
Gas bubbles rising through the lava pond create small blisters in t...Gas bubbles rising through the lava pond create small blisters in the thin flexible crust near the pond margin.
Gas bubbles rising through the lava pond create small blisters in t...
Gas bubbles rising through the lava pond create small blisters in t...Gas bubbles rising through the lava pond create small blisters in the thin flexible crust near the pond margin.