USGS Field Test Support Unit (left to right) Dick Wiser, John Hendricks, Bill Tinnin and Putty Mills with the Explorer, a lunar rover vehicle simulator at Cinder Lake Crater Field east of Flagstaff, December 1968.
Images
Browse here for some of our available imagery. We may get permission to use some non-USGS images and these should be marked and are subject to copyright laws. USGS Astrogeology images can be freely downloaded.
USGS Field Test Support Unit (left to right) Dick Wiser, John Hendricks, Bill Tinnin and Putty Mills with the Explorer, a lunar rover vehicle simulator at Cinder Lake Crater Field east of Flagstaff, December 1968.
Landsat-8 nighttime thermal infrared image, Tern Lake, Yellowstone
Landsat-8 nighttime thermal infrared image, Tern Lake, YellowstoneLandsat-8 nighttime thermal infrared image from April 2017 showing the Tern Lake area. In Yellowstone, temperatures are extremely cold at night in the winter, and most lakes are frozen (dark pixels). West Tern Lake seems to be thawing here - perhaps it receives some thermal waters from nearby hot springs.
Landsat-8 nighttime thermal infrared image, Tern Lake, Yellowstone
Landsat-8 nighttime thermal infrared image, Tern Lake, YellowstoneLandsat-8 nighttime thermal infrared image from April 2017 showing the Tern Lake area. In Yellowstone, temperatures are extremely cold at night in the winter, and most lakes are frozen (dark pixels). West Tern Lake seems to be thawing here - perhaps it receives some thermal waters from nearby hot springs.
High-spatial-resolution airborne images of Tern Lake, Yellowstone
High-spatial-resolution airborne images of Tern Lake, YellowstoneHigh-spatial-resolution airborne images of the Tern Lake area from 1994, 2006, and 2017. The area of bright pixels identified in the Landsat-8 thermal infrared image corresponds to a newly emerging area of warm ground and tree kills about 32,500 m2 (8 acres, or 4 soccer fields) in area.
High-spatial-resolution airborne images of Tern Lake, Yellowstone
High-spatial-resolution airborne images of Tern Lake, YellowstoneHigh-spatial-resolution airborne images of the Tern Lake area from 1994, 2006, and 2017. The area of bright pixels identified in the Landsat-8 thermal infrared image corresponds to a newly emerging area of warm ground and tree kills about 32,500 m2 (8 acres, or 4 soccer fields) in area.
Map of thermal areas in Yellowstone National Park, 2019
Map of thermal areas in Yellowstone National Park, 2019Map of thermal areas in Yellowstone National Park. Most of Yellowstone's more than 10,000 thermal features are clustered together into about 120 distinct thermal areas (shown in red). Lakes are blue. The Yellowstone Caldera is solid black and the resurgent domes are dotted black. Roads are yellow.
Map of thermal areas in Yellowstone National Park, 2019
Map of thermal areas in Yellowstone National Park, 2019Map of thermal areas in Yellowstone National Park. Most of Yellowstone's more than 10,000 thermal features are clustered together into about 120 distinct thermal areas (shown in red). Lakes are blue. The Yellowstone Caldera is solid black and the resurgent domes are dotted black. Roads are yellow.
The Mast Camera (Mastcam) on NASA's Curiosity Mars rover captured this mosaic as it explored the "clay-bearing unit" on Feb. 3, 2019 (Sol 2309). This landscape includes the rocky landmark nicknamed "Knockfarril Hill" (center right) and the edge of Vera Rubin Ridge, which runs along the top of the scene.
The Mast Camera (Mastcam) on NASA's Curiosity Mars rover captured this mosaic as it explored the "clay-bearing unit" on Feb. 3, 2019 (Sol 2309). This landscape includes the rocky landmark nicknamed "Knockfarril Hill" (center right) and the edge of Vera Rubin Ridge, which runs along the top of the scene.
David Scott and James Irwin in the Lunar Roving Vehicle "Grover"
David Scott and James Irwin in the Lunar Roving Vehicle "Grover"In preperation for Apollo 15, David Scott and James Irwin trained with a training version of the Lunar Rover known as the "Grover". Apollo 15 was the first mission to bring a rover. This allowed the astronauts to cover a larger distance and explore a larger area.
David Scott and James Irwin in the Lunar Roving Vehicle "Grover"
David Scott and James Irwin in the Lunar Roving Vehicle "Grover"In preperation for Apollo 15, David Scott and James Irwin trained with a training version of the Lunar Rover known as the "Grover". Apollo 15 was the first mission to bring a rover. This allowed the astronauts to cover a larger distance and explore a larger area.
USGS SIM 3389: Geologic map of the Nepenthes Planum Region, Mars
USGS SIM 3389: Geologic map of the Nepenthes Planum Region, MarsUSGS SIM 3389: Geologic map of the Nepenthes Planum Region, Mars
By James A. Skinner and Kenneth L. Tanaka
Map and associated documents available from the USGS Publications Warehouse: https://doi.org/10.3133/sim3389
USGS SIM 3389: Geologic map of the Nepenthes Planum Region, Mars
USGS SIM 3389: Geologic map of the Nepenthes Planum Region, MarsUSGS SIM 3389: Geologic map of the Nepenthes Planum Region, Mars
By James A. Skinner and Kenneth L. Tanaka
Map and associated documents available from the USGS Publications Warehouse: https://doi.org/10.3133/sim3389
Active barchan dune at Grand Falls Dune Field. Dark grains to the left of the slipface are volcanic and derived from local cinder cones from the San Francisco volcanic field, the lighter-colored tan sand is sourced from the Little Colorado River.
Active barchan dune at Grand Falls Dune Field. Dark grains to the left of the slipface are volcanic and derived from local cinder cones from the San Francisco volcanic field, the lighter-colored tan sand is sourced from the Little Colorado River.
Previous Evidence of Water on Mars Now Identified as Grainflows
Previous Evidence of Water on Mars Now Identified as GrainflowsThis HiRISE image cutout shows Recurring Slope Lineae in Tivat crater on Mars in enhanced color. The narrow, dark flows descend downhill (towards the upper left). Analysis shows that the flows all end at approximately the same slope, which is similar to the angle of repose for sand.
Previous Evidence of Water on Mars Now Identified as Grainflows
Previous Evidence of Water on Mars Now Identified as GrainflowsThis HiRISE image cutout shows Recurring Slope Lineae in Tivat crater on Mars in enhanced color. The narrow, dark flows descend downhill (towards the upper left). Analysis shows that the flows all end at approximately the same slope, which is similar to the angle of repose for sand.
Image Credit: NASA/Goddard Space Flight Center/Arizona State University
Published: October 20, 2017
The near side of Earth's Moon, as seen based on data from cameras aboard NASA's robotic Lunar Reconnaissance Orbiter spacecraft.
Image Credit: NASA/Goddard Space Flight Center/Arizona State University
Published: October 20, 2017
The near side of Earth's Moon, as seen based on data from cameras aboard NASA's robotic Lunar Reconnaissance Orbiter spacecraft.
This orthographic projection shows dwarf planet Ceres as seen by NASA's Dawn spacecraft. The projection is centered on Occator Crater, home to the brightest area on Ceres. Occator is centered at 20 degrees north latitude, 239 degrees east longitude.
This orthographic projection shows dwarf planet Ceres as seen by NASA's Dawn spacecraft. The projection is centered on Occator Crater, home to the brightest area on Ceres. Occator is centered at 20 degrees north latitude, 239 degrees east longitude.
USGS SIM 3356: Geologic map of Meridiani Planum, Mars
USGS SIM 3356: Geologic map of Meridiani Planum, MarsUSGS SIM 3356: Geologic map of Meridiani Planum, Mars
By: Brian M. Hynek and Gaetano Di Achille
Map and associated data available from the USGS Publications Warehouse: https://doi.org/10.3133/sim3356
USGS SIM 3356: Geologic map of Meridiani Planum, Mars
USGS SIM 3356: Geologic map of Meridiani Planum, MarsUSGS SIM 3356: Geologic map of Meridiani Planum, Mars
By: Brian M. Hynek and Gaetano Di Achille
Map and associated data available from the USGS Publications Warehouse: https://doi.org/10.3133/sim3356
USGS and Oregon State University scientists deploying electromagnetic sensors in the field.
USGS and Oregon State University scientists deploying electromagnetic sensors in the field.
Infrared mosaic image of Mars Gale crater by the Thermal Emission Imaging Spectrometer (THEMIS) of the USGS Astrogeology Science Center and Arizona State University. The Mars Science Laboratory is scheduled to land in Gale crater Aug. 5, 2012.
Infrared mosaic image of Mars Gale crater by the Thermal Emission Imaging Spectrometer (THEMIS) of the USGS Astrogeology Science Center and Arizona State University. The Mars Science Laboratory is scheduled to land in Gale crater Aug. 5, 2012.
Planetary Caves' Role in Astronaut Bases and the Search for Life
Planetary Caves' Role in Astronaut Bases and the Search for LifeDuring the 2nd International Planetary Caves Conference, attendees explored Lava River cave, located near Flagstaff, Arizona. This photo was taken using time-lapse photography and the light streak is the result of person walking with a headlamp.
Planetary Caves' Role in Astronaut Bases and the Search for Life
Planetary Caves' Role in Astronaut Bases and the Search for LifeDuring the 2nd International Planetary Caves Conference, attendees explored Lava River cave, located near Flagstaff, Arizona. This photo was taken using time-lapse photography and the light streak is the result of person walking with a headlamp.
Planetary Caves' Role in Astronaut Bases and the Search for Life
Planetary Caves' Role in Astronaut Bases and the Search for LifeAttendees of the 2nd International Planetary Caves Conference pose for a photo. Participants include a local high-school robotics team, called the CocoNuts.
Planetary Caves' Role in Astronaut Bases and the Search for Life
Planetary Caves' Role in Astronaut Bases and the Search for LifeAttendees of the 2nd International Planetary Caves Conference pose for a photo. Participants include a local high-school robotics team, called the CocoNuts.
Planetary Caves' Role in Astronaut Bases and the Search for Life
Planetary Caves' Role in Astronaut Bases and the Search for LifeDuring the 2nd International Planetary Caves Conference, attendees explored a 1.6-kilometer-long lava tube cave, northwest of Flagstaff, Arizona.
Planetary Caves' Role in Astronaut Bases and the Search for Life
Planetary Caves' Role in Astronaut Bases and the Search for LifeDuring the 2nd International Planetary Caves Conference, attendees explored a 1.6-kilometer-long lava tube cave, northwest of Flagstaff, Arizona.
NASA's New Horizons spacecraft captured this high-resolution enhanced color view of Pluto on July 14, 2015. The image combines blue, red and infrared images taken by the Ralph/Multispectral Visual Imaging Camera (MVIC). Pluto's surface sports a remarkable range of subtle colors, enhanced in this view to a rainbow of pale blues, yellows, oranges, and deep reds.
NASA's New Horizons spacecraft captured this high-resolution enhanced color view of Pluto on July 14, 2015. The image combines blue, red and infrared images taken by the Ralph/Multispectral Visual Imaging Camera (MVIC). Pluto's surface sports a remarkable range of subtle colors, enhanced in this view to a rainbow of pale blues, yellows, oranges, and deep reds.
LRO LOLA and Kaguya Terrain Camera DEM Merge 60N60S 512ppd
LRO LOLA and Kaguya Terrain Camera DEM Merge 60N60S 512ppdThe LOLA and Kaguya Teams have created an improved lunar digital elevation model (DEM) covering latitudes within ±60°, at a horizontal resolution of 512 pixels per degree (∼59 m at the equator) and a typical vertical accuracy ∼3 to 4 m.
LRO LOLA and Kaguya Terrain Camera DEM Merge 60N60S 512ppd
LRO LOLA and Kaguya Terrain Camera DEM Merge 60N60S 512ppdThe LOLA and Kaguya Teams have created an improved lunar digital elevation model (DEM) covering latitudes within ±60°, at a horizontal resolution of 512 pixels per degree (∼59 m at the equator) and a typical vertical accuracy ∼3 to 4 m.