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Core Science Systems images.

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Landsat image over Window Rock, Arizona.
Landsat image of Window Rock, Arizona
Landsat image of Window Rock, Arizona
Landsat image of Window Rock, Arizona

Landsat image of Window Rock, Arizona, acquired on November 3, 2021.

For more information about Landsat, please visit www.usgs.gov/Landsat

To download the data, visit earthexplorer.usgs.gov

Color Landsat 9 image of Navajo Nation
Navajo Nation
Navajo Nation
Navajo Nation

In the Western U.S., in places like the Navajo Nation as seen in this Landsat 9 image, Landsat and other satellite data help people monitor drought conditions and manage irrigation water. With only 85 rain gauges to cover more than 27,000 square miles, satellite data and climate models are filling the gaps to help the Navajo Nation monitor drought severity.

In the Western U.S., in places like the Navajo Nation as seen in this Landsat 9 image, Landsat and other satellite data help people monitor drought conditions and manage irrigation water. With only 85 rain gauges to cover more than 27,000 square miles, satellite data and climate models are filling the gaps to help the Navajo Nation monitor drought severity.

satellite image of himalayas
Landsat 9 First Light Image of the Himalayas
Landsat 9 First Light Image of the Himalayas
Landsat 9 First Light Image of the Himalayas

The city of Kathmandu, Nepal, seen at the bottom left of this Landsat 9 image, lies in a valley south of the Himalayan Mountainsbetween Nepal and China. Glaciers, and the lakes formed by glacial meltwater, are visible in the top middle of this image.

The city of Kathmandu, Nepal, seen at the bottom left of this Landsat 9 image, lies in a valley south of the Himalayan Mountainsbetween Nepal and China. Glaciers, and the lakes formed by glacial meltwater, are visible in the top middle of this image.

Color Landsat 9 image of Lake Erie
Landsat 9 First Light Detroit & Lake Erie
Landsat 9 First Light Detroit & Lake Erie
Landsat 9 First Light Detroit & Lake Erie

Sediments swirl in Lake Erie and Lake St. Clair in this Landsat 9 image of both Detroit, Michigan, and Windsor, Ontario, from Oct. 31, 2021. The Great Lakes serve as sources of freshwater, recreational activity, transport, and habitat for the upper-midwestern US, and water quality remains a high priority. 

Sediments swirl in Lake Erie and Lake St. Clair in this Landsat 9 image of both Detroit, Michigan, and Windsor, Ontario, from Oct. 31, 2021. The Great Lakes serve as sources of freshwater, recreational activity, transport, and habitat for the upper-midwestern US, and water quality remains a high priority. 

Interior of the Lava River Cave
IMG_0302.jpeg
IMG_0302.jpeg
IMG_0302.jpeg

Image showing a section of Lava River Cave, located in Northern Arizona. 

Image showing a section of Lava River Cave, located in Northern Arizona. 

Dr. Kyle Rodman, Dr. Zhiliang Zhu, and Dr. Sarah Hart, pictured with the graphic for the USGS EROS podcast "Eyes on Earth."
Eyes on Earth - Colorado Bark Beetles homepage
Eyes on Earth - Colorado Bark Beetles homepage
Eyes on Earth - Colorado Bark Beetles homepage

From top, Dr. Kyle Rodman, Dr. Zhiliang Zhu, and Dr. Sarah Hart, pictured with the graphic for the USGS EROS podcast "Eyes on Earth."

Example of the Landsat Collection 2 Burned Area Science Product
Example of the Landsat Collection 2 Burned Area Science Product showing the Bootleg Fire in Oregon
Example of the Landsat Collection 2 Burned Area Science Product showing the Bootleg Fire in Oregon
Example of the Landsat Collection 2 Burned Area Science Product showing the Bootleg Fire in Oregon

Example of the Landsat Collection 2 Burned Area Science Product showing the Bootleg Fire in Oregon on July 11, 2021 for tile h006V010. Left: Landsat 8 Collection 2 U.S. Analysis Ready Data Surface Reflectance image (Bands 6,5,4), Middle: Burn Classification (BC), and Right: Burn Probability (BP).

Example of the Landsat Collection 2 Burned Area Science Product showing the Bootleg Fire in Oregon on July 11, 2021 for tile h006V010. Left: Landsat 8 Collection 2 U.S. Analysis Ready Data Surface Reflectance image (Bands 6,5,4), Middle: Burn Classification (BC), and Right: Burn Probability (BP).

Color Landsat 8 image of South Dakota
South Dakota Landsat 8 Mosaic
South Dakota Landsat 8 Mosaic
South Dakota Landsat 8 Mosaic

South Dakota is home to the fabled “Black Hills.” Seen from a distance, these pine-covered hills, rising several thousand feet above the surrounding prairie, appear black.

South Dakota is home to the fabled “Black Hills.” Seen from a distance, these pine-covered hills, rising several thousand feet above the surrounding prairie, appear black.

Landsat 8 Collection 2 image of the Menindee Lakes in Australia
Landsat 8 Collection 2 image of the Menindee Lakes in Australia
Landsat 8 Collection 2 image of the Menindee Lakes in Australia
Landsat 8 Collection 2 image of the Menindee Lakes in Australia

The Menindee Lakes in the Far West of New South Wales, Australia, are seen in this Landsat 8 Collection 2 image from May 14, 2021, and is shown as a natural color composite using the red, green, and blue bands (Bands 4,3,2).

The Menindee Lakes in the Far West of New South Wales, Australia, are seen in this Landsat 8 Collection 2 image from May 14, 2021, and is shown as a natural color composite using the red, green, and blue bands (Bands 4,3,2).

Landsat 8 Collection 2 image of the Richat Structure
Landsat 8 Collection 2 image of the Richat Structure
Landsat 8 Collection 2 image of the Richat Structure
Landsat 8 Collection 2 image of the Richat Structure

This Landsat 8 Collection 2 image was acquired over the Richat Structure near the western edge of the Sahara Desert on April 25, 2020 and is shown as a natural color composite using the red, green, and blue bands (Bands 4,3,2).

This Landsat 8 Collection 2 image was acquired over the Richat Structure near the western edge of the Sahara Desert on April 25, 2020 and is shown as a natural color composite using the red, green, and blue bands (Bands 4,3,2).

Landsat Collection 2 DSWE Example
Example of the Landsat Collection 2 Dynamic Surface Water Extent Science Product
Example of the Landsat Collection 2 Dynamic Surface Water Extent Science Product
Example of the Landsat Collection 2 Dynamic Surface Water Extent Science Product

Example of the Landsat Collection 2 Dynamic Surface Water Science Product showing the Confluence of the Wabash and Ohio Rivers on April 12, 2021,for tile h021V010. Left: Landsat Collection 2 U.S. Analysis Ready Data Surface Reflectance image, Right: Dynamic Surface Water Extent (INTR layer)

Example of the Landsat Collection 2 Dynamic Surface Water Science Product showing the Confluence of the Wabash and Ohio Rivers on April 12, 2021,for tile h021V010. Left: Landsat Collection 2 U.S. Analysis Ready Data Surface Reflectance image, Right: Dynamic Surface Water Extent (INTR layer)

Image of a meteorological station at Sunset Crater, AZ
SUCR cinder field met station.jpeg
SUCR cinder field met station.jpeg
SUCR cinder field met station.jpeg

The image shows the Astrogeology Science Center experimental meteorological station.

The image shows the Astrogeology Science Center experimental meteorological station.

3DEP Funding Gap Scenarios
3DEP Funding Gap Scenarios
3DEP Funding Gap Scenarios
3DEP Funding Gap Scenarios

Bar graphs comparing three partner funding scenarios for completing nationwide 3D Elevation Program data acquisition by 2023. 

Bar graphs comparing three partner funding scenarios for completing nationwide 3D Elevation Program data acquisition by 2023. 

Landsat 8 Surface Reflectance image off the coast of Labrador and Newfoundland
Landsat 8 Images Labrador
Landsat 8 Images Labrador
Landsat 8 Images Labrador

Landsat 8 Surface Reflectance image of the coast of Labrador and Newfoundland

Path 5 Row 23

Date acquired 20210216

Landsat 8 Surface Reflectance image of the coast of Labrador and Newfoundland

Path 5 Row 23

Date acquired 20210216

EDH Data Acquisition Specifications Report Figure 17
EDH Data Acquisition Specifications Figure 10
EDH Data Acquisition Specifications Figure 10
EDH Data Acquisition Specifications Figure 10

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 10: Correcting headwater stream delineation at roads.

EDH Data Acquisition Specifications Report Figure 10
EDH Data Acquisition Specifications Figure 9
EDH Data Acquisition Specifications Figure 9
EDH Data Acquisition Specifications Figure 9

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 9: Proper delineation of a culvert feature within a stream segment.

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 9: Proper delineation of a culvert feature within a stream segment.

EDH Data Acquisition Specifications Report Figure 7
EDH Data Acquisition Specifications Figure 7
EDH Data Acquisition Specifications Figure 7
EDH Data Acquisition Specifications Figure 7

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 7: The streams within the Roaring River watershed indicate density disparity because of the collection differences between Jackson, Overton, and Putnam Counties, Tennessee.

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 7: The streams within the Roaring River watershed indicate density disparity because of the collection differences between Jackson, Overton, and Putnam Counties, Tennessee.

EDH Data Acquisition Specifications Report Figure 6
EDH Data Acquisition Specifications Figure 6
EDH Data Acquisition Specifications Figure 6
EDH Data Acquisition Specifications Figure 6

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 6: The hydrography within the southern quadrangles of this 12-digit hydrologic unit must be densified to be consistent with the northern quadrangles.

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 6: The hydrography within the southern quadrangles of this 12-digit hydrologic unit must be densified to be consistent with the northern quadrangles.

EDH Data Acquisition Specifications Report Figure 9
EDH Data Acquisition Specifications Figure 8
EDH Data Acquisition Specifications Figure 8
EDH Data Acquisition Specifications Figure 8

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 8. Bridge treatment in the bare-earth digital elevation model. The bridge deck is removed, and water surface is interpolated beneath the bridge to maintain a monotonic, continuous water feature.

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 8. Bridge treatment in the bare-earth digital elevation model. The bridge deck is removed, and water surface is interpolated beneath the bridge to maintain a monotonic, continuous water feature.

EDH Data Acquisition Specifications Report Figure 5
EDH Data Acquisition Specifications Figure 5
EDH Data Acquisition Specifications Figure 5
EDH Data Acquisition Specifications Figure 5

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 5: Artifacts within National Hydrography Dataset density inherited from original quadrangle map delineation of hydrography.

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 5: Artifacts within National Hydrography Dataset density inherited from original quadrangle map delineation of hydrography.

EDH Data Acquisition Specifications Report Figure 4
EDH Data Acquisition Specifications Figure 4
EDH Data Acquisition Specifications Figure 4
EDH Data Acquisition Specifications Figure 4

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 4: Additional features with visible channels captured from the light detection and ranging-derived elevation surface.

Elevation-Derived Hydrography Data Acquisition Specifications Report Figure 4: Additional features with visible channels captured from the light detection and ranging-derived elevation surface.

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