Skip to main content
U.S. flag

An official website of the United States government

Images

Explore the images on this page to learn more about the Landsat sensors, satellites and missions.  

Filter Total Items: 413
Graphic showing the cumulative number of scenes per path/row in the Landsat archive
Cumulative number of scenes in the Landsat Archive
Cumulative number of scenes in the Landsat Archive
Cumulative number of scenes in the Landsat Archive

This graphic shows the cumulative number of scenes by path and row in the Landsat archive from 1972 - 2020. This graphic was created on the anniversary of the 9 millionth scene addition to the USGS Landsat Archive.

This graphic shows the cumulative number of scenes by path and row in the Landsat archive from 1972 - 2020. This graphic was created on the anniversary of the 9 millionth scene addition to the USGS Landsat Archive.

9 Millionth Landsat Scene
The 9 millionth scene added to the USGS Landsat Archive
The 9 millionth scene added to the USGS Landsat Archive
The 9 millionth scene added to the USGS Landsat Archive

The USGS Landsat Archive added its 9 millionth scene to the archive on September 18, 2020. The scene was acquired by Landsat 8 over Northern Paraguay and is shown using bands 6,5,4.

Example of the Landsat 7 ETM+ Collection 2 level-2 science products
Example of the Landsat 7 ETM+ Collection 2 level-2 science products
Example of the Landsat 7 ETM+ Collection 2 level-2 science products
Example of the Landsat 7 ETM+ Collection 2 level-2 science products

Example of the Landsat 7 ETM+ Collection 2 level-2 science products. Left: Landsat 7 level-2 surface reflectance image. Right: Landsat 7 level-2 surface temperature image. The data was acquired on August 19, 2020 (path 179 row 28).

Example of the Landsat 7 ETM+ Collection 2 level-2 science products. Left: Landsat 7 level-2 surface reflectance image. Right: Landsat 7 level-2 surface temperature image. The data was acquired on August 19, 2020 (path 179 row 28).

Landsat 8 image showing Lakes Everard and Harry in S. Australia
Landsat 8 image showing Lakes Everard and Harry in S. Australia
Landsat 8 image showing Lakes Everard and Harry in S. Australia
Landsat 8 image showing Lakes Everard and Harry in S. Australia

Example of the Landsat 8 OLI/TIRS Collection 2 level-1 product. This Landsat 8 image was acquired on August 18, 2020 over Lake Everard and Lake Harry in southern Australia and is shown as a false color composite using the shortwave infrared, near infrared, and red bands (bands 6,5,4).

Example of the Landsat 8 OLI/TIRS Collection 2 level-1 product. This Landsat 8 image was acquired on August 18, 2020 over Lake Everard and Lake Harry in southern Australia and is shown as a false color composite using the shortwave infrared, near infrared, and red bands (bands 6,5,4).

Landsat 8 image of SCU Complex Fire
SCU Complex Fire - After
SCU Complex Fire - After
Montana’s Moon-Like Rocks
Montana’s Moon-Like Rocks
Montana’s Moon-Like Rocks
Montana’s Moon-Like Rocks

On August 10, 2018, Operational Land Imager (OLI) on Landsat 8 acquired this image showing part of the Stillwater Complex south of Nye, Montana. Read the original story on NASA Earth Observatory.

On August 10, 2018, Operational Land Imager (OLI) on Landsat 8 acquired this image showing part of the Stillwater Complex south of Nye, Montana. Read the original story on NASA Earth Observatory.

Example of the Landsat 8 Aquatic Reflectance Science Product
Example of the Landsat 8 Aquatic Reflectance Science Product
Example of the Landsat 8 Aquatic Reflectance Science Product
Example of the Landsat 8 Aquatic Reflectance Science Product

Left: Land surface reflectance natural color composite image (bands 4,3,2); Right: aquatic reflectance Band 2 (Blue band) image of San Francisco Bay, using data acquired by Landsat 8 (Path 44 Row 33) on October 7, 2018

Left: Land surface reflectance natural color composite image (bands 4,3,2); Right: aquatic reflectance Band 2 (Blue band) image of San Francisco Bay, using data acquired by Landsat 8 (Path 44 Row 33) on October 7, 2018

William T. Pecora
William T. Pecora
William T. Pecora
William T. Pecora

William T. Pecora, Director of the USGS from 1965 to 1971, is largely responsible for two major contributions to science in the public interest: the creation of a national earthquake research center at the USGS facility in Menlo Park, CA, and the Landsat series of Earth observing satellites.

William T. Pecora, Director of the USGS from 1965 to 1971, is largely responsible for two major contributions to science in the public interest: the creation of a national earthquake research center at the USGS facility in Menlo Park, CA, and the Landsat series of Earth observing satellites.

Nighttime Landsat 8 image of the Taal Volcano
Nighttime Landsat 8 image of the Taal Volcano
Nighttime Landsat 8 image of the Taal Volcano
Nighttime Landsat 8 image of the Taal Volcano

This image shows a false color (bands 7,6,5) nighttime Landsat 8 image of the Taal Volcano overlaid on a daytime Landsat panchromatic black and white image (band 8). The nighttime image from path 220/row194 was acquired on January 15, 2020, a few days after the volcano's eruption.

This image shows a false color (bands 7,6,5) nighttime Landsat 8 image of the Taal Volcano overlaid on a daytime Landsat panchromatic black and white image (band 8). The nighttime image from path 220/row194 was acquired on January 15, 2020, a few days after the volcano's eruption.

Landsat 8 image of Phoenix, Arizona
Landsat 8 image of Phoenix, Arizona
Landsat 8 image of Phoenix, Arizona
Landsat 8 image of Phoenix, Arizona

Landsat 8 image of Phoenix, Arizona, acquired on January 13, 2020 (Path 37 Row 36).  This false color image uses the short-wave infrared, near infrared, and red bands (bands 6, 5, 4) to display the data.

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

Landsat 8 image of Phoenix, Arizona, acquired on January 13, 2020 (Path 37 Row 36).  This false color image uses the short-wave infrared, near infrared, and red bands (bands 6, 5, 4) to display the data.

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

Animation demonstrating urban heat in Atlanta, GA
Atlanta Surface Temperature
Atlanta Surface Temperature
Atlanta Surface Temperature

Animation comparing a natural color Landsat 8 satellite image of Atlanta, GA with satellite-based surface temperatures. Buildings and impervious surfaces trap heat, leading to higher temperatures in urban areas - a phenomenon generally referred to as the Urban Heat Island effect.

Animation comparing a natural color Landsat 8 satellite image of Atlanta, GA with satellite-based surface temperatures. Buildings and impervious surfaces trap heat, leading to higher temperatures in urban areas - a phenomenon generally referred to as the Urban Heat Island effect.

Map displaying Landsat 7 scenes not acquired Dec 17, 2019
Map displaying Landsat 7 scenes not acquired Dec 17, 2019
Map displaying Landsat 7 scenes not acquired Dec 17, 2019
Map displaying Landsat 7 scenes not acquired Dec 17, 2019

This map displays Landsat 7 scenes not acquired Dec 17, 2019, due to a choke anamoly on the ETM+ sensor's solid state recorder. 

Visit the Landsat Headlines for more information about this event. 

This map displays Landsat 7 scenes not acquired Dec 17, 2019, due to a choke anamoly on the ETM+ sensor's solid state recorder. 

Visit the Landsat Headlines for more information about this event. 

Landsat 8 satellite image of Philippines after Typhoon Kammuri
Landsat 8 image of Manila Bay - December 6, 2019
Landsat 8 image of Manila Bay - December 6, 2019
Landsat 8 image of Manila Bay - December 6, 2019

Landsat 8 image of Manila Bay, captured on December 6, 2019, four days after the area was struck by Typhoon Kammuri. 

Example of the Landsat 8-9 Collection 2 Provisional Aquatic Reflectance Science Product
Example of the Landsat 8-9 Collection 2 Provisional Aquatic Reflectance Science Product
Example of the Landsat 8-9 Collection 2 Provisional Aquatic Reflectance Science Product
Example of the Landsat 8-9 Collection 2 Provisional Aquatic Reflectance Science Product

The United Kingdom’s Solway Firth is show in these images comparing a natural color Landsat 8 Collection 2 Level-1 product (Bands 4,3,2) acquired on October 2, 2019 (left), and the corresponding Collection 2 Provisional Aquatic Reflectance science product using Rayleigh-corrected Reflectance (RHORC) Bands 4,3,2 (right).

The United Kingdom’s Solway Firth is show in these images comparing a natural color Landsat 8 Collection 2 Level-1 product (Bands 4,3,2) acquired on October 2, 2019 (left), and the corresponding Collection 2 Provisional Aquatic Reflectance science product using Rayleigh-corrected Reflectance (RHORC) Bands 4,3,2 (right).

Star Dunes,
Landsat image of Star dunes, Sossusvlei, Namibia. 
Landsat image of Star dunes, Sossusvlei, Namibia. 
Landsat image of Star dunes, Sossusvlei, Namibia. 

Star dunes, colored red by iron oxide sand, are seen in this Landsat scene from Sossusvlei in Namibia. 

A Landsat image of Greenland’s Petermann Glacier
Meltwater lakes form on the surface of Greenland’s Petermann Glacier
Meltwater lakes form on the surface of Greenland’s Petermann Glacier
Meltwater lakes form on the surface of Greenland’s Petermann Glacier

Meltwater lakes form on the surface of Greenland’s Petermann Glacier, seen here in a June 2019 Landsat image. A new study finds that the number, and elevation, of meltwater lakes in Greenalnd is increasing. Credit: NASA/USGS

Meltwater lakes form on the surface of Greenland’s Petermann Glacier, seen here in a June 2019 Landsat image. A new study finds that the number, and elevation, of meltwater lakes in Greenalnd is increasing. Credit: NASA/USGS

A Landsat image showing flooding along the Missouri River in 2019
Landsat 8 captures flooding along the Missouri River 2019
Landsat 8 captures flooding along the Missouri River 2019
Landsat 8 captures flooding along the Missouri River 2019

In March 2019, a warm spell that contained heavy rainfall caused snow covering the landscape (up to 3 feet in some areas) to quickly melt, and caused major flooding in the U.S. Midwest. Overall, the "The Great Flood of 2019" greatly affected the Missouri River and its tributaries in South Dakota, Iowa, Nebraska, Missouri, and Kansas. 

In March 2019, a warm spell that contained heavy rainfall caused snow covering the landscape (up to 3 feet in some areas) to quickly melt, and caused major flooding in the U.S. Midwest. Overall, the "The Great Flood of 2019" greatly affected the Missouri River and its tributaries in South Dakota, Iowa, Nebraska, Missouri, and Kansas. 

Research image of Apache Reservation
San Carlos Apache Reservation Drought Research
San Carlos Apache Reservation Drought Research
San Carlos Apache Reservation Drought Research

(A) The Creek Fire perimeter within the San Carlos Apache Reservation in east-central Arizona and (B) the various fuel treatments within the Creek Fire boundary, using the boundary in Wu et al.

(A) The Creek Fire perimeter within the San Carlos Apache Reservation in east-central Arizona and (B) the various fuel treatments within the Creek Fire boundary, using the boundary in Wu et al.

Image: Landsat Ice Caps
Landsat Ice Caps
Landsat Ice Caps
Landsat Ice Caps

Landsat image of ice caps in northern Savernaya Zemlya, Russian Arctic Islands (80 degrees N.). The scene shows zones of melting on the ice caps. The largest ice cap is about 80 km across. Image courtesy of Julian Dowdeswell, Scott Polar Research Institute, Cambridge, UK.

Landsat image of ice caps in northern Savernaya Zemlya, Russian Arctic Islands (80 degrees N.). The scene shows zones of melting on the ice caps. The largest ice cap is about 80 km across. Image courtesy of Julian Dowdeswell, Scott Polar Research Institute, Cambridge, UK.

Was this page helpful?