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Flat underwater surface with many rocks tucked in close to each other; bright stripes of tape on rod that is touching bottom.
Cook Islands manganese nodules
Cook Islands manganese nodules
Cook Islands manganese nodules

A bed of manganese nodules from deep offshore of the Cook Islands; photo sourced from Hein et al., 2015, taken during a Japanese research cruise in the year 2000. Nodules range from about 2 to 10 centimeters across.

A bed of manganese nodules from deep offshore of the Cook Islands; photo sourced from Hein et al., 2015, taken during a Japanese research cruise in the year 2000. Nodules range from about 2 to 10 centimeters across.

Aerial view of an island with clouds floating above it, with distinctive land features like mountains and agriculture.
Landsat satellite image of Kauaʻi
Landsat satellite image of Kauaʻi
Landsat satellite image of Kauaʻi

This image was acquired on December 26, 2000, by the Enhanced Thematic Mapper plus instrument aboard NASA’s Landsat 7 satellite.

This image was acquired on December 26, 2000, by the Enhanced Thematic Mapper plus instrument aboard NASA’s Landsat 7 satellite.

Two men stand by an oil well pumping unit, one man is crouched over the well, all in a forested location.
Oil well pumping unit, south area of the La Honda oil field, CA
Oil well pumping unit, south area of the La Honda oil field, CA
Oil well pumping unit, south area of the La Honda oil field, CA

The south area of the La Honda oil field, California, was discovered during the late 1950s and produced an estimated 595,000 barrels of oil from about 12 wells, including the well in this photo.

The south area of the La Honda oil field, California, was discovered during the late 1950s and produced an estimated 595,000 barrels of oil from about 12 wells, including the well in this photo.

Cartoon depicting an earthquake along a subduction zone with big starburst symbol, shows how ocean water is displaced upward.
Earthquake starts tsunami
Earthquake starts tsunami
Earthquake starts tsunami

An earthquake along a subduction zone happens when the leading edge of the overriding plate breaks free and springs seaward, raising the sea floor and the water above it. This uplift starts a tsunami. Meanwhile, the bulge behind the leading edge collapses, thinning the plate and lowering coastal areas.

An earthquake along a subduction zone happens when the leading edge of the overriding plate breaks free and springs seaward, raising the sea floor and the water above it. This uplift starts a tsunami. Meanwhile, the bulge behind the leading edge collapses, thinning the plate and lowering coastal areas.

Poster with illustrations of the underwater part of a bay, with text about the work done in the area.
Mapping Shipping Hazards in San Francisco Bay, 1997-1998
Mapping Shipping Hazards in San Francisco Bay, 1997-1998
Mapping Shipping Hazards in San Francisco Bay, 1997-1998

Large-scale poster describing USGS work.

The USGS mapped western San Francisco Bay using sonar, in cooperation with the National Oceanic and Atmospheric Administration (NOAA) and C&C Technologies. Some parts of the Bay floor are so shallow that a large tanker or container ship could run aground at low tide and create a massive oil spill.

Large-scale poster describing USGS work.

The USGS mapped western San Francisco Bay using sonar, in cooperation with the National Oceanic and Atmospheric Administration (NOAA) and C&C Technologies. Some parts of the Bay floor are so shallow that a large tanker or container ship could run aground at low tide and create a massive oil spill.

A large inflatable raft with two pontoons carries three people and equipment along a waterway with steep rocky edge.
Sonar in the Grand Canyon, 1992
Sonar in the Grand Canyon, 1992
Sonar in the Grand Canyon, 1992

George Tate (right, in light baseball cap) drives a raft on the Colorado River in Grand Canyon, 1992. The crane near the bow was used to deploy a small tripod holding a rotating sidescan sonar, which sat on the riverbed recording the motion of underwater sand dunes.

George Tate (right, in light baseball cap) drives a raft on the Colorado River in Grand Canyon, 1992. The crane near the bow was used to deploy a small tripod holding a rotating sidescan sonar, which sat on the riverbed recording the motion of underwater sand dunes.

Photo shows the major collapse of a building following an earthquake, the building has fallen onto and crushed a car completely.
Loma Prieta earthquake, Marina District
Loma Prieta earthquake, Marina District
Loma Prieta earthquake, Marina District

An automobile lies crushed under the third story of this apartment building in the Marina District. The ground levels are no longer visible because of structural failure and sinking due to liquefaction.

An automobile lies crushed under the third story of this apartment building in the Marina District. The ground levels are no longer visible because of structural failure and sinking due to liquefaction.

Poster laid out with photos, images, and text.
Giant Hawaiian Underwater Landslides
Giant Hawaiian Underwater Landslides
Giant Hawaiian Underwater Landslides

Large-scale poster describing USGS work.

The USGS, in cooperation with the UK Institute of Oceanographic Sciences (IOS) and others, took images of the seafloor 200 miles around the Hawaiian Islands using GLORIA. GLORIA is a long-range sonar that gives a bird’s-eye view of the seafloor.

Large-scale poster describing USGS work.

The USGS, in cooperation with the UK Institute of Oceanographic Sciences (IOS) and others, took images of the seafloor 200 miles around the Hawaiian Islands using GLORIA. GLORIA is a long-range sonar that gives a bird’s-eye view of the seafloor.

A map showing the ocean floor with shades of color to indicate changing depth, nd other demarkations to show various features
Sea Beam bathymetric map of the southern Escanaba Trough area
Sea Beam bathymetric map of the southern Escanaba Trough area
Sea Beam bathymetric map of the southern Escanaba Trough area

Sea Beam bathymetric map of southern Escanaba Trough study area. Contour interval is 10m and is noted by color change. Locations of single- channel water-gun reflection profiles 4 to 12, cruise L1-86-NC, are shown.

Sea Beam bathymetric map of southern Escanaba Trough study area. Contour interval is 10m and is noted by color change. Locations of single- channel water-gun reflection profiles 4 to 12, cruise L1-86-NC, are shown.

An image of the seafloor showing glassy, fresh pillow basalt flow
Glassy, fresh pillow basalt flow at NESCA site
Glassy, fresh pillow basalt flow at NESCA site
Glassy, fresh pillow basalt flow at NESCA site

Glassy, fresh pillow basalt flow at the NESCA site, northern half of Escanaba Trough.

Glassy, fresh pillow basalt flow at the NESCA site, northern half of Escanaba Trough.

Photo of seafloor shows older, oxidized sulfide deposit colonized by sponges
Older, oxidized sulfide deposit colonized by sponges at SESCA site
Older, oxidized sulfide deposit colonized by sponges at SESCA site
Older, oxidized sulfide deposit colonized by sponges at SESCA site

Older, oxidized sulfide deposit colonized by sponges at SESCA site, southern half of Escanaba Trough.

Older, oxidized sulfide deposit colonized by sponges at SESCA site, southern half of Escanaba Trough.

Photo of seafloor shows sulfide mound and talus
Sulfide mound and talus at NESCA site. Rectangular marker at center of photograph is 15 by 30 cm
Sulfide mound and talus at NESCA site. Rectangular marker at center of photograph is 15 by 30 cm
Sulfide mound and talus at NESCA site. Rectangular marker at center of photograph is 15 by 30 cm

Sulfide mound and talus at NESCA site, northern half of Escanaba Trough. Rectangular marker at center of photograph is 15 by 30 cm.

Side of actively ventiPhoto of massive sulfide chimney colonized by tube worms and palm worms
Side of actively venting massive sulfide chimney colonized by tube worms and palm worms
Side of actively venting massive sulfide chimney colonized by tube worms and palm worms
Side of actively venting massive sulfide chimney colonized by tube worms and palm worms

Photo shows the side of an actively venting massive sulfide chimney colonized by tube worms and palm worms.

Photo of tube worms and anemones colonize massive sulfide talus where diffuse hydrothermal venting is occurring
Tube worms and anemones colonize massive sulfide talus where diffuse hydrothermal venting is occurring
Tube worms and anemones colonize massive sulfide talus where diffuse hydrothermal venting is occurring
Tube worms and anemones colonize massive sulfide talus where diffuse hydrothermal venting is occurring

Photo shows tube worms and anemones colonizing massive sulfide talus where diffuse hydrothermal venting is occurring.

Photo of side of sulfide mound showing cluster of tube worms, anemones, and bacterial mats
Side of sulfide mound showing cluster of tube worms, anemones, and bacterial mats
Side of sulfide mound showing cluster of tube worms, anemones, and bacterial mats
Side of sulfide mound showing cluster of tube worms, anemones, and bacterial mats

Photo shows side of sulfide mound showing cluster of tube worms, anemones, and bacterial mats.

Photo of hydrothermal deposits (primarily barite) adjacent to site of active venting
Hydrothermal deposits (primarily barite) adjacent to site of active venting
Hydrothermal deposits (primarily barite) adjacent to site of active venting
Hydrothermal deposits (primarily barite) adjacent to site of active venting

Hydrothermal deposits (primarily barite) adjacent to site of active venting. Shiny black material is possibly pyrobitumen.

Hydrothermal deposits (primarily barite) adjacent to site of active venting. Shiny black material is possibly pyrobitumen.

Dynaphot photomicrographs of foraminifers from Escanaba Trough
Dynaphot photomicrographs of foraminifers from Escanaba Trough
Dynaphot photomicrographs of foraminifers from Escanaba Trough
Dynaphot photomicrographs of foraminifers from Escanaba Trough

Dynaphot photomicrographs of foraminifers from Escanaba Trough. A-D, Rhabdammina sp.

Bathymetry map of Escanaba Trough
Bathymetry map of Escanaba Trough
Bathymetry map of Escanaba Trough
Bathymetry map of Escanaba Trough

Sea Beam bathymetric map of Escanaba Trough from 1985. A, Northern half. B, Southern half. Contour interval is 50 m; each color change represents 100 m. Yellow indicates areas of no data.

Sea Beam bathymetric map of Escanaba Trough from 1985. A, Northern half. B, Southern half. Contour interval is 50 m; each color change represents 100 m. Yellow indicates areas of no data.

Old hand-drawn map showing land and sea features including height of mountains.
Cape Flattery topographic map, 1985
Cape Flattery topographic map, 1985
Cape Flattery topographic map, 1985

Topographic map of the Cape Flattery region (U.S. Geological Survey Cape Flattery Quadrangle, 15-min series).

Topographic map of the Cape Flattery region (U.S. Geological Survey Cape Flattery Quadrangle, 15-min series).

A grinning man looks up from an inflatable boat with a motor, he is wearing sunglasses and a lifejacket, holding a big hook.
Readying the grappling hook
Readying the grappling hook
Readying the grappling hook

George Tate playfully brandishes a grappling hook in a boat in Cook Inlet, Alaska, 1978. The driver (not shown) and George are about to motor away from the research vessel Sea Sounder to drag for the large tripod dubbed the Geoprobe. The apparatus had not deployed its recovery float and line, so the scientists had to try to hook it up off the seafloor.

George Tate playfully brandishes a grappling hook in a boat in Cook Inlet, Alaska, 1978. The driver (not shown) and George are about to motor away from the research vessel Sea Sounder to drag for the large tripod dubbed the Geoprobe. The apparatus had not deployed its recovery float and line, so the scientists had to try to hook it up off the seafloor.

Three men stand in front of a single-engine airplane in an open field.
Three geologists and a plane
Three geologists and a plane
Three geologists and a plane

Three pioneers of USGS geological studies, in 1965, from left to right: Parke D. Snavely, Jr., Robert E. Wallace, and Thomas W. Dibblee, in front of a 1964 Cessna 182G Skylane.

Three pioneers of USGS geological studies, in 1965, from left to right: Parke D. Snavely, Jr., Robert E. Wallace, and Thomas W. Dibblee, in front of a 1964 Cessna 182G Skylane.