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A time-averaged image from Duck, North Carolina, on September 1, 2015
A time-averaged image from Duck, North Carolina, on September 1, 2015
A time-averaged image from Duck, North Carolina, on September 1, 2015
A time-averaged image from Duck, North Carolina, on September 1, 2015

The relatively new camera stations at Santa Cruz and Madeira Beach have not yet imaged many rip channels, so this is an example from the U.S. Army Corps of Engineers Field Research Facility in Duck, North Carolina. In this time-averaged image from video taken September 1, 2015, the dark horizontal bands perpendicular to the beach indicate rip channels.

The relatively new camera stations at Santa Cruz and Madeira Beach have not yet imaged many rip channels, so this is an example from the U.S. Army Corps of Engineers Field Research Facility in Duck, North Carolina. In this time-averaged image from video taken September 1, 2015, the dark horizontal bands perpendicular to the beach indicate rip channels.

Two photos showing people standing near some kind of pole, collecting data up on top of a cliff overlooking the ocean.
GPS data collection along the Big Sur coast in 2007 (L), and 2015 (R)
GPS data collection along the Big Sur coast in 2007 (L), and 2015 (R)
GPS data collection along the Big Sur coast in 2007 (L), and 2015 (R)

Left: USGS research hydrologist Mark Reid (left) and USGS research geologist Kevin Schmidt collect GPS data along the Big Sur coast on September 19, 2007. Photo credit: Maiana Hanshaw, USGS (now with swisstopo).

Left: USGS research hydrologist Mark Reid (left) and USGS research geologist Kevin Schmidt collect GPS data along the Big Sur coast on September 19, 2007. Photo credit: Maiana Hanshaw, USGS (now with swisstopo).

Clams half buried in very fine, gray sediment.
Calyptogena spp. in Alaska
Calyptogena spp. in Alaska
Calyptogena spp. in Alaska

These clams (Calyptogena spp.) were discovered in about 1000 meter-deep waters off the southern tip of Alaska near a 250-meter-high cone rising from the seafloor and 10 kilometers from the Queen Charlotte-Fairweather fault.

These clams (Calyptogena spp.) were discovered in about 1000 meter-deep waters off the southern tip of Alaska near a 250-meter-high cone rising from the seafloor and 10 kilometers from the Queen Charlotte-Fairweather fault.

Sky view of the coastline of a mountainous island with a shallow coral reef that has lots of deep holes and channels.
Fringing reef, Kamalo, Molokai
Fringing reef, Kamalo, Molokai
Fringing reef, Kamalo, Molokai

The challenging and complex study environment of Molokaʻi’s (Hawaiʻi) fringing reef. Learn more about USGS studies on this island: “Coral Reef Project: Molokaʻi

The challenging and complex study environment of Molokaʻi’s (Hawaiʻi) fringing reef. Learn more about USGS studies on this island: “Coral Reef Project: Molokaʻi

Illustration showing the location of the San Andreas Fault with underwater landslides identified nearby.
Slope failures along the San Andreas Fault, Fort Ross
Slope failures along the San Andreas Fault, Fort Ross
Slope failures along the San Andreas Fault, Fort Ross

Geology and geomorphology offshore of Fort Ross, California, showing location of the San Andreas Fault and slope failures in the fault zone.

Geology and geomorphology offshore of Fort Ross, California, showing location of the San Andreas Fault and slope failures in the fault zone.

Map illustration showing bathymetry, or depth, and a fault offshore of the Alaskan coastline.
Queen Charlotte-Fairweather fault
Queen Charlotte-Fairweather fault
Queen Charlotte-Fairweather fault

Enlarged details of Survey Area 1 showing new multibeam bathymetry data (rainbow colors) acquired on R/V Solstice near Cross Sound and Glacier Bay National Park, southeastern Alaska. Arrows highlight the surface expression, or trace, of the Queen Charlotte-Fairweather fault.

Enlarged details of Survey Area 1 showing new multibeam bathymetry data (rainbow colors) acquired on R/V Solstice near Cross Sound and Glacier Bay National Park, southeastern Alaska. Arrows highlight the surface expression, or trace, of the Queen Charlotte-Fairweather fault.

Illustrated map shows the seafloor off of Alaska, a fault runs through the middle and seafloor features are clearly offset.
Yakobi Sea Valley
Yakobi Sea Valley
Yakobi Sea Valley

Enlarged from previous figure, this map shows a string of basins along the fault and offset of the south wall of the Yakobi Sea Valley. Line A–B marks the location of multichannel seismic-reflection profile.

Enlarged from previous figure, this map shows a string of basins along the fault and offset of the south wall of the Yakobi Sea Valley. Line A–B marks the location of multichannel seismic-reflection profile.

Cross-section illustration showing structure beneath the seafloor with mostly horizontal lines but one clear offset section wher
Multichannel seismic-reflection profile
Multichannel seismic-reflection profile
Multichannel seismic-reflection profile

Multichannel seismic-reflection profile showing sediment layers beneath the seafloor disrupted by the Queen Charlotte-Fairweather fault near Cross Sound. The profile is approximately 16 kilometers across, and it extends approximately 370 meters beneath the seafloor. See related multimedia below, for the location of this profile.

Multichannel seismic-reflection profile showing sediment layers beneath the seafloor disrupted by the Queen Charlotte-Fairweather fault near Cross Sound. The profile is approximately 16 kilometers across, and it extends approximately 370 meters beneath the seafloor. See related multimedia below, for the location of this profile.

Computer application screen showing seafloor features, depth on left, a volcano-like cone sticking up in middle with plume.
Sidescan sonar record off so. Alaska
Sidescan sonar record off so. Alaska
Sidescan sonar record off so. Alaska

Profile of newly discovered volcano-like cone in sonar record collected off southern Alaska. The cone’s summit is at about 1,000 meters water depth. Note fluid plume (blue) rising more than 700 meters upward from the summit.

Profile of newly discovered volcano-like cone in sonar record collected off southern Alaska. The cone’s summit is at about 1,000 meters water depth. Note fluid plume (blue) rising more than 700 meters upward from the summit.

Computer-generated illustration of colored, high-resolution seafloor map clearly shows a fault and where the seafloor is offset.
Seafloor trace of the Queen Charlotte-Fairweather fault
Seafloor trace of the Queen Charlotte-Fairweather fault
Seafloor trace of the Queen Charlotte-Fairweather fault

Seafloor trace of the Queen Charlotte-Fairweather fault (from top left to bottom right) offsets the edge of the Yakobi Sea Valley off southeast Alaska. This 700-mile-long fault has generated large earthquakes in the past. Future shocks—and tsunamis—could threaten coastal communities in the U.S. and Canada. (Color-coded depths, in meters, were mapped in 2015.)

Seafloor trace of the Queen Charlotte-Fairweather fault (from top left to bottom right) offsets the edge of the Yakobi Sea Valley off southeast Alaska. This 700-mile-long fault has generated large earthquakes in the past. Future shocks—and tsunamis—could threaten coastal communities in the U.S. and Canada. (Color-coded depths, in meters, were mapped in 2015.)

Map shows a coastal area from above with undersea features visible, and lines drawn on top to show research ship tracklines.
Yakobi Sea Valley
Yakobi Sea Valley
Yakobi Sea Valley

Enlarged map of the Yakobi Sea Valley. Closeup view (upper right) shows right-lateral offset of the Yakobi Sea Valley wall by the Queen Charlotte-Fairweather fault. MCS, multichannel seismic; km, kilometers. For location, see the southeastern Alaska trackline map.

Enlarged map of the Yakobi Sea Valley. Closeup view (upper right) shows right-lateral offset of the Yakobi Sea Valley wall by the Queen Charlotte-Fairweather fault. MCS, multichannel seismic; km, kilometers. For location, see the southeastern Alaska trackline map.

First map shows aerial view of beach area, next with 50-centimeter sea-level rise, last with added annual storm.
Flood Map, Stinson Beach
Flood Map, Stinson Beach
Flood Map, Stinson Beach

Flood maps from Our Coast, Our Future showing Stinson Beach today (slide 1); with a 50-centimeter sea-level rise (slide 2); and when an annual storm strikes in addition to 50-centimeter sea-level rise (slide 3). Green patches are low-lying areas prone to flooding.

Flood maps from Our Coast, Our Future showing Stinson Beach today (slide 1); with a 50-centimeter sea-level rise (slide 2); and when an annual storm strikes in addition to 50-centimeter sea-level rise (slide 3). Green patches are low-lying areas prone to flooding.

Large map at top shows the study area bathymetry, four smaller maps below show the detail at locations from larger map.
Bathymetry data of Columbia River mouth
Bathymetry data of Columbia River mouth
Bathymetry data of Columbia River mouth

Bathymetry data of Columbia River mouth, derived from an interferometric swath bathymetry systems survey in 2013. A) Swath map of data; B-E) sample detail pull-outs

Bathymetry data of Columbia River mouth, derived from an interferometric swath bathymetry systems survey in 2013. A) Swath map of data; B-E) sample detail pull-outs

Waves breaking over offshore reefs on Kwajalein Atoll, in the Marshall Islands
Breaking waves, Marshall Islands
Breaking waves, Marshall Islands
Breaking waves, Marshall Islands

Waves breaking over offshore reefs on Kwajalein Atoll, in the Marshall Islands, where reefs are protecting developed land from flooding.

 

Waves breaking over offshore reefs on Kwajalein Atoll, in the Marshall Islands, where reefs are protecting developed land from flooding.

 

Man sits at a desk with a keyboard and computer screen with a colorful image on it and he is gesturing and talking about it.
Jared Kluesner discusses seismic data visualization
Jared Kluesner discusses seismic data visualization
Jared Kluesner discusses seismic data visualization

USGS geophysicist Jared Kluesner points at a three-dimensional cross-section of seismic data about 40 kilometers across and several kilometers deep located in the Santa Barbara Channel. This imaging deep below the seafloor allows scientists to visualize and map faults better.

USGS geophysicist Jared Kluesner points at a three-dimensional cross-section of seismic data about 40 kilometers across and several kilometers deep located in the Santa Barbara Channel. This imaging deep below the seafloor allows scientists to visualize and map faults better.

A man sits at a computer screen holding a mouse with a keyboard in front of him, looking at the monitor talking and gesturing.
Jared Kluesner displays a 3D view of seismic data
Jared Kluesner displays a 3D view of seismic data
Jared Kluesner displays a 3D view of seismic data

Jared Kluesner displays a 3D view of seismic data collected off Santa Barbara. This visualization helps him analyze the Earth’s layers from the seafloor (rainbow-colored surface) to several kilometers below (slices extending down from the colored surface).

Jared Kluesner displays a 3D view of seismic data collected off Santa Barbara. This visualization helps him analyze the Earth’s layers from the seafloor (rainbow-colored surface) to several kilometers below (slices extending down from the colored surface).

A man sitting in a pontoon raft prepares a piece of equipment.
Preparing a bubbler system
Preparing a bubbler system
Preparing a bubbler system

USGS marine technician Pete Dal Ferro, from the Pacific Coastal and Marine Science Center, prepares to deploy the bubbler system from an inflatable vessel offshore of Santa Cruz, California. The compressed air was stored in the large white cylinder, and the yellow air hose was connected to a garden soaker hose wrapped around a weight.

USGS marine technician Pete Dal Ferro, from the Pacific Coastal and Marine Science Center, prepares to deploy the bubbler system from an inflatable vessel offshore of Santa Cruz, California. The compressed air was stored in the large white cylinder, and the yellow air hose was connected to a garden soaker hose wrapped around a weight.

Two men stand and a woman sits on tilled earth near marsh grass, woman works on a black box, one man holds paper.
Magnetic base station setup
Magnetic base station setup
Magnetic base station setup

USGS scientists Kevin Denton (left), Katherine “Kyeti” Morgan, and David Ponce set up a magnetic base station during fieldwork along the Hayward-Rodgers Creek fault zone in wheat fields north of San Pablo Bay.

USGS scientists Kevin Denton (left), Katherine “Kyeti” Morgan, and David Ponce set up a magnetic base station during fieldwork along the Hayward-Rodgers Creek fault zone in wheat fields north of San Pablo Bay.