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Explore our planet through photography and imagery, including climate change and water all the way back to the 1800s when the USGS was surveying the country by horse and buggy.

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Map of the NE US coast showing several types of data collected by NOAA and the USGS, with explanatory insets
Map shows hill-shaded bathymetric, backscatter, and photographic data
Map shows hill-shaded bathymetric, backscatter, and photographic data
Map shows hill-shaded bathymetric, backscatter, and photographic data

Hill-shaded bathymetric, backscatter, and photographic data collected by NOAA and the USGS. Backscatter data give indications of seafloor character. In general, low-backscatter intensity (blue) corresponds to finer-grained material, whereas high-backscatter intensity (orange) corresponds to coarser substrate.

Hill-shaded bathymetric, backscatter, and photographic data collected by NOAA and the USGS. Backscatter data give indications of seafloor character. In general, low-backscatter intensity (blue) corresponds to finer-grained material, whereas high-backscatter intensity (orange) corresponds to coarser substrate.

Two maps; the left hand one shows brown land, blue water, and red arrows. The right hand one shows colored survey tracklines
Maps with key features and shaded relief of the study area
Maps with key features and shaded relief of the study area
Maps with key features and shaded relief of the study area

Left: Key features in and around the Gulf of Alaska. A black rectangle outlines our 2016 study area along the Queen Charlotte-Fairweather fault. Red arrows indicate relative tectonic plate motions. Right: A shaded relief map of the 2016 study area. Rainbow colors show seafloor depths acquired by the USGS in 2015 and 2016. Red indicates shallower depths.

Left: Key features in and around the Gulf of Alaska. A black rectangle outlines our 2016 study area along the Queen Charlotte-Fairweather fault. Red arrows indicate relative tectonic plate motions. Right: A shaded relief map of the 2016 study area. Rainbow colors show seafloor depths acquired by the USGS in 2015 and 2016. Red indicates shallower depths.

man in yellow slicker standing in rushing river up to his thighs, holding a stick-like instrument in the water
Measuring streamflow in fast moving floodwater.
Measuring streamflow in fast moving floodwater.
Measuring streamflow in fast moving floodwater.

USGS hydrographer measuring streamflow using a handheld Acoustic Doppler Velocimeter in fast moving floodwater Cajon Creek near Keenbrook, California. 

man in yellow shirt and camo coveralls standing in thigh-high water with instrument.
Measuring streamflow in the Sisquoc River near Garey, California.
Measuring streamflow in the Sisquoc River near Garey, California.
Measuring streamflow in the Sisquoc River near Garey, California.

USGS technician measuring streamflow in the Sisquoc River near Garey, California, upstream of the Santa Maria Mesa Road Bridge.

Medicine Lake, California simplified hazards map showing potential ...
Medicine Lake, CA simplified hazards map
Medicine Lake, CA simplified hazards map
Medicine Lake, CA simplified hazards map

Medicine Lake, California simplified hazards map showing potential impact area for ground-based hazards during a volcanic event.

Medicine Lake, California simplified hazards map showing potential impact area for ground-based hazards during a volcanic event.

Photograph of  methane plumes at the Norfolk Canyon seeps
Methane Plumes
Methane Plumes
Methane Plumes

(Top) Methane plumes at the Norfolk Canyon seeps (~1600 meters or 5250 feet) were detected using the EK60 sonar. The water column plumes are shown above the sub-seafloor structure as imaged by high-resolution multichannel seismic data acquired by the USGS and processed by J. Kluesner.

(Top) Methane plumes at the Norfolk Canyon seeps (~1600 meters or 5250 feet) were detected using the EK60 sonar. The water column plumes are shown above the sub-seafloor structure as imaged by high-resolution multichannel seismic data acquired by the USGS and processed by J. Kluesner.

Mount Baker, Washington simplified hazards map
Mount Baker, WA simplified hazards map
Mount Baker, WA simplified hazards map
Mount Baker, WA simplified hazards map

Mount Baker, Washington simplified hazards map showing potential impact area for ground-based hazards during a volcanic event.

Mount Baker, Washington simplified hazards map showing potential impact area for ground-based hazards during a volcanic event.

Photo of a mountain against the low elevation Mojave desert
Mountain and Mojave Desert
Mountain and Mojave Desert
Mountain and Mojave Desert

Landscape shot of a mountain and the low elevation Mojave Desert.

deploying a multicorer to sample the seafloor near an Atlantic margin methane seep site.
Multicorer deployment to sample the seafloor
Multicorer deployment to sample the seafloor
Multicorer deployment to sample the seafloor

USGS ocean engineers Peter Dal Ferro and Gerry Hatcher, from the Pacific Coastal and Marine Science Center in Santa Cruz, California, deploying a multicorer to sample the seafloor near an Atlantic margin methane seep site.

multicores
Multicores
Multicores
Multicores

Multicores collected from the northern Gulf of Mexico. These cores contain roughly 1 meter of sediment from the seafloor, and represent the past ~2000 years of deposition.

Multicores collected from the northern Gulf of Mexico. These cores contain roughly 1 meter of sediment from the seafloor, and represent the past ~2000 years of deposition.

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