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Image: Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981

Photo 3 of 15: Community pool being undercut by a sinkhole. View to west across the sinkhole.

Image: Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981

Photo 5 of 15: House in a sinkhole. View to east across the sinkhole.

Image: Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981

Photo 9 of 15: Community pool collapsing into sinkhole at. Pool was roughly Olympic-sized and was about half full at the time of collapse. Impressive sounds of the rebar and concrete snapping, then the rush of water. View to north across the sinkhole. (1:30 p.m)

Photo 9 of 15: Community pool collapsing into sinkhole at. Pool was roughly Olympic-sized and was about half full at the time of collapse. Impressive sounds of the rebar and concrete snapping, then the rush of water. View to north across the sinkhole. (1:30 p.m)

Image: Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981

Photo 10 of 15: Sinkhole chimney after pool collapse. View to south across the sinkholne. For a time after the pool collapse and introduction of the pool water into the sinkhole, there was a noticeable increase in slope movement, especially deeper in the sinkhole. The house and building parts broke up further and disappeared.

Photo 10 of 15: Sinkhole chimney after pool collapse. View to south across the sinkholne. For a time after the pool collapse and introduction of the pool water into the sinkhole, there was a noticeable increase in slope movement, especially deeper in the sinkhole. The house and building parts broke up further and disappeared.

Image: Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981
Winter Park Florida Sinkhole of 1981

Photo 11 of 15: Intersection of South Denning Drive and West Comstock Ave. Sinkhole is edging close to Denning Drive. One block of Comstock Ave was swallowed. View to south on Denning Drive adjacent to the sinkhole.

Photo 11 of 15: Intersection of South Denning Drive and West Comstock Ave. Sinkhole is edging close to Denning Drive. One block of Comstock Ave was swallowed. View to south on Denning Drive adjacent to the sinkhole.

South Fork of the Ogden River stream gage shelter, fall 1980.
South Fork of the Ogden River stream gage shelter, fall 1980
South Fork of the Ogden River stream gage shelter, fall 1980
South Fork of the Ogden River stream gage shelter, fall 1980

South Fork of the Ogden River streamgage shelter in the fall of 1980. This streamgage has been monitoring water levels and flow since March 21, 1921, making it one of 25 centennial gauges in Utah. 

South Fork of the Ogden River streamgage shelter in the fall of 1980. This streamgage has been monitoring water levels and flow since March 21, 1921, making it one of 25 centennial gauges in Utah. 

Death Valley Dunes
Death Valley Dunes
Death Valley Dunes
Death Valley Dunes

Mesquite Flat Sand Dunes, Death Valley National Park, May 1980.

Mesquite Flat Sand Dunes, Death Valley National Park, May 1980.

Image: Muir Inlet
Muir Inlet
Muir Inlet
Muir Inlet

This ship-deck-based photograph of Muir Glacier and Muir Inlet, Glacier Bay National Park and Preserve, St. Elias Mountains, Alaska, is taken towards the north-northwest and shows the nearly 50-m-high retreating tidewater terminus of the glacier with part of its face capped by a few angular séracs.

This ship-deck-based photograph of Muir Glacier and Muir Inlet, Glacier Bay National Park and Preserve, St. Elias Mountains, Alaska, is taken towards the north-northwest and shows the nearly 50-m-high retreating tidewater terminus of the glacier with part of its face capped by a few angular séracs.

A partially buried bridge in black and white
The St. Helens bridge on Highway 504 was carried over a quarter-mile
The St. Helens bridge on Highway 504 was carried over a quarter-mile
The St. Helens bridge on Highway 504 was carried over a quarter-mile

The May 18, 1980 eruption of Mount St. Helens, Washington, generated lahars that swept down river valleys. The St. Helens bridge on Highway 504 was carried over a quarter-mile (a half-kilometer) downstream and partially buried.  The USGS Cascades Volcano Observatory continues to monitor Mount St. Helens and other very high threat volcanoes. Photo by R.L.

The May 18, 1980 eruption of Mount St. Helens, Washington, generated lahars that swept down river valleys. The St. Helens bridge on Highway 504 was carried over a quarter-mile (a half-kilometer) downstream and partially buried.  The USGS Cascades Volcano Observatory continues to monitor Mount St. Helens and other very high threat volcanoes. Photo by R.L.

November 1979 Pauahi Eruption
November 1979 Pauahi Eruption
November 1979 Pauahi Eruption
November 1979 Pauahi Eruption

The November 16, 1979, eruption near Pauahi Crater was a brief, one-day event on the upper East Rift Zone. It was preceded by two months of increased seismic activity, summit inflation, and lava erupting from fissures west of, within, and east of the crater.

The November 16, 1979, eruption near Pauahi Crater was a brief, one-day event on the upper East Rift Zone. It was preceded by two months of increased seismic activity, summit inflation, and lava erupting from fissures west of, within, and east of the crater.

Aerial photo of Mount St. Helens volcano, pre-1980 eruption
Aerial photo of Mount St. Helens volcano, pre-1980 eruption
Aerial photo of Mount St. Helens volcano, pre-1980 eruption
Aerial photo of Mount St. Helens volcano, pre-1980 eruption

Before the eruption of May 18, 1980, Mount St. Helens' elevation was 2,950 m (9,677 ft). View from the west, Mount Adams in distance. S. Fork Toutle River is valley in center of photo.

Mount Adams elevation is 3,745 m (12, 286 ft). Mount St. Helens was the smallest of five major volcanic peaks in Washington State.

Before the eruption of May 18, 1980, Mount St. Helens' elevation was 2,950 m (9,677 ft). View from the west, Mount Adams in distance. S. Fork Toutle River is valley in center of photo.

Mount Adams elevation is 3,745 m (12, 286 ft). Mount St. Helens was the smallest of five major volcanic peaks in Washington State.

September 1977 Kalalu/Puu Kauka Eruption
September 1977 Kalalu/Puu Kauka Eruption
September 1977 Kalalu/Puu Kauka Eruption
September 1977 Kalalu/Puu Kauka Eruption

The September 1977 eruption of Kīlauea began after nearly two years of dormancy, with activity breaking out on September 13 along a 3.5-mile-long fissure system between the prehistoric cones of Kalalua and Puʻu Kauka.

The September 1977 eruption of Kīlauea began after nearly two years of dormancy, with activity breaking out on September 13 along a 3.5-mile-long fissure system between the prehistoric cones of Kalalua and Puʻu Kauka.

Image: Land Subsidence in the San Joaquin Valley
Land Subsidence in the San Joaquin Valley
Land Subsidence in the San Joaquin Valley
Land Subsidence in the San Joaquin Valley

Approximate point of maximum subsidence in the San Joaquin Valley, California. Land surface subsided ~9 m from 1925 to 1977 due to aquifer-system compaction. Signs on the telephone pole indicate the former elevations of the land surface in 1925 and 1955.

Photograph by Richard Ireland, U.S. Geological Survey

Approximate point of maximum subsidence in the San Joaquin Valley, California. Land surface subsided ~9 m from 1925 to 1977 due to aquifer-system compaction. Signs on the telephone pole indicate the former elevations of the land surface in 1925 and 1955.

Photograph by Richard Ireland, U.S. Geological Survey

September 1974 Halemaʻumaʻu Eruption
September 1974 Halemaʻumaʻu Eruption
September 1974 Halemaʻumaʻu Eruption
September 1974 Halemaʻumaʻu Eruption

The September 1974 Halemaʻumaʻu eruption was a brief but intense summit event at Kīlauea, erupting from fissures within the crater in a similar location to the 1971 eruption. Unlike the July 1974 eruption, this event featured a “curtain-of-fire” style lava fountain that advanced rapidly but stopped abruptly at the southwest wall of the caldera.

The September 1974 Halemaʻumaʻu eruption was a brief but intense summit event at Kīlauea, erupting from fissures within the crater in a similar location to the 1971 eruption. Unlike the July 1974 eruption, this event featured a “curtain-of-fire” style lava fountain that advanced rapidly but stopped abruptly at the southwest wall of the caldera.

July 1974 Keanakākoʻi Eruption
July 1974 Keanakākoʻi Eruption
July 1974 Keanakākoʻi Eruption
July 1974 Keanakākoʻi Eruption

The July 19–22, 1974, Keanakākoʻi eruption was a dramatic summit event triggered by a sudden increase in seismicity and summit deflation. Lava fountains up to 180 feet high erupted from fissures north and south of Keanakākoʻi Crater and on the caldera floor, sending lava flows about 1.5 miles southward and across the caldera floor.

The July 19–22, 1974, Keanakākoʻi eruption was a dramatic summit event triggered by a sudden increase in seismicity and summit deflation. Lava fountains up to 180 feet high erupted from fissures north and south of Keanakākoʻi Crater and on the caldera floor, sending lava flows about 1.5 miles southward and across the caldera floor.

Image: USGS Topographers at Work
USGS Topographers at Work
USGS Topographers at Work
USGS Topographers at Work

Warren "Buz" Brown making second-order measurements using a Kern theodolite. The blind is to prevent temperature variations from affecting the instrument.

Warren "Buz" Brown making second-order measurements using a Kern theodolite. The blind is to prevent temperature variations from affecting the instrument.

Image: USGS Topographers at Work
USGS Topographers at Work
USGS Topographers at Work
USGS Topographers at Work

Warren "Buz" Brown making second-order measurements using a Kern theodolite. The blind is to prevent temperature variations from affecting the instrument.

Warren "Buz" Brown making second-order measurements using a Kern theodolite. The blind is to prevent temperature variations from affecting the instrument.

U.S. Geological Survey streamflow-gaging station 08116650 Brazos River near Rosharon, Texas, upstream from FM 1462 bridge.
USGS station 08116650 Brazos River near Rosharon, Texas
USGS station 08116650 Brazos River near Rosharon, Texas
USGS station 08116650 Brazos River near Rosharon, Texas

U.S. Geological Survey streamflow-gaging station 08116650 Brazos River near Rosharon, Texas, looking upstream from Farm-to-Market Road (FM) 1462 bridge, August 28, 1973.
USGS SIR 2009–5174

U.S. Geological Survey streamflow-gaging station 08116650 Brazos River near Rosharon, Texas, looking upstream from Farm-to-Market Road (FM) 1462 bridge, August 28, 1973.
USGS SIR 2009–5174

May 1973 Eruption near Hiʻiaka Crater
May 1973 Eruption near Hiʻiaka Crater
May 1973 Eruption near Hiʻiaka Crater
May 1973 Eruption near Hiʻiaka Crater

The May 1973 eruption near Hiʻiaka Crater was a vigorous event on Kīlauea’s upper East Rift Zone. Lasting about seven hours, it produced lava flows that traveled from just west of Hiʻiaka to Pauahi Crater, crossing what is now Chain of Craters Road in Hawaiʻi Volcanoes National Park.

The May 1973 eruption near Hiʻiaka Crater was a vigorous event on Kīlauea’s upper East Rift Zone. Lasting about seven hours, it produced lava flows that traveled from just west of Hiʻiaka to Pauahi Crater, crossing what is now Chain of Craters Road in Hawaiʻi Volcanoes National Park.

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