NASA’s New Views of Venus’ Surface From Space

  • Released Wednesday, February 9, 2022
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NASA’s Parker Solar Probe has taken its first visible light images of the surface of Venus from space.

Smothered in thick clouds, Venus’ surface is usually shrouded from sight. But in two recent flybys of the planet, Parker used its Wide-Field Imager, or WISPR, to image the entire nightside in wavelengths of the visible spectrum – the type of light that the human eye can see – and extending into the near-infrared.

The images, combined into a video, reveal a faint glow from the surface that shows distinctive features like continental regions, plains, and plateaus. A luminescent halo of oxygen in the atmosphere can also be seen surrounding the planet.

Link to NASA.gov feature.

Link to associated research paper.

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Music credits: “Tides” and “Subsurface” by Ben Niblett [PRS] and Jon Cotton [PRS] from Universal Production Music

Complete transcript available.

Watch this video on the NASA Goddard YouTube channel.

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VIDEO

As Parker Solar Probe flew by Venus on its fourth flyby in February 2021, its WISPR instrument captured these images, strung into a video, showing the nightside surface of the planet.

Credit: NASA/APL/NRL

GIFAs Parker Solar Probe flew by Venus on its fourth flyby in February 2021, its WISPR instrument captured these images, strung into a video, showing the nightside surface of the planet. Credit: NASA/APL/NRL

GIF

As Parker Solar Probe flew by Venus on its fourth flyby in February 2021, its WISPR instrument captured these images, strung into a video, showing the nightside surface of the planet.

Credit: NASA/APL/NRL

VIDEO

WISPR images from Parker Solar Probe's fourth flyby of Venus align with topographical maps from NASA's Magallen mission. The Magellan mission mapped the surface of Venus with radar in the 1990s. The images gave the first global view of what was below Venus’ thick clouds.

Credit: NASA/APL/NRL (left), Magellan Team/JPL/USGS (right)

GIF WISPR images from Parker Solar Probe's fourth flyby of Venus align with topographical maps from NASA's Magallen mission. The Magellan mission mapped the surface of Venus with radar in the 1990s. The images gave the first global view of what was below Venus’ thick clouds. Credit: NASA/APL/NRL (left), Magellan Team/JPL/USGS (right)

GIF

WISPR images from Parker Solar Probe's fourth flyby of Venus align with topographical maps from NASA's Magallen mission. The Magellan mission mapped the surface of Venus with radar in the 1990s. The images gave the first global view of what was below Venus’ thick clouds.

Credit: NASA/APL/NRL (left), Magellan Team/JPL/USGS (right)

VIDEO

This composite shows the images from Parker Solar Probe’s fourth flyby of Venus superimposed on a radar map of Venus previously taken by NASA's Magellan mission.

Credit: Magellan Team/JPL/USGS

VIDEO

On July 11, 2020, Parker Solar Probe flew by Venus during the mission's third gravity assist of the planet and captured these images using its cameras known as WISPR. WISPR images align with topographical maps from NASA's Magallen mission. The Magellan mission mapped the surface of Venus with radar in the 1990s. The images gave the first global view of what was below Venus’ thick clouds.

Credit: NASA/APL/NRL (black and white image), Magellan Team/JPL/USGS (color image)

GIFOn July 11, 2020, Parker Solar Probe flew by Venus during the mission's third gravity assist of the planet and captured these images using its cameras known as WISPR. WISPR images align with topographical maps from NASA's Magallen mission. The Magellan mission mapped the surface of Venus with radar in the 1990s. The images gave the first global view of what was below Venus’ thick clouds. Credit: NASA/APL/NRL (black and white image), Magellan Team/JPL/USGS (color image)

GIF

On July 11, 2020, Parker Solar Probe flew by Venus during the mission's third gravity assist of the planet and captured these images using its cameras known as WISPR. WISPR images align with topographical maps from NASA's Magallen mission. The Magellan mission mapped the surface of Venus with radar in the 1990s. The images gave the first global view of what was below Venus’ thick clouds.

Credit: NASA/APL/NRL (black and white image), Magellan Team/JPL/USGS (color image)

IMAGEWhen flying past Venus in July 2020, Parker Solar Probe’s WISPR instrument, short for Wide-field Imager for Parker Solar Probe, detected a bright rim around the edge of the planet that may be nightglow — light emitted by oxygen atoms high in the atmosphere that recombine into molecules in the nightside. The prominent dark feature in the center of the image is Aphrodite Terra, the largest highland region on the Venusian surface. Bright streaks in WISPR, such as the ones seen here, are typically caused by a combination of charged particles — called cosmic rays — sunlight reflected by grains of space dust, and particles of material expelled from the spacecraft’s structures after impact with those dust grains. The number of streaks varies along the orbit or when the spacecraft is traveling at different speeds, and scientists are still in discussion about the specific origins of the streaks here. The dark spot appearing on the lower portion of Venus is an artifact from the WISPR instrument.Credit: NASA/APL/NRL

IMAGE

When flying past Venus in July 2020, Parker Solar Probe’s WISPR instrument, short for Wide-field Imager for Parker Solar Probe, detected a bright rim around the edge of the planet that may be nightglow — light emitted by oxygen atoms high in the atmosphere that recombine into molecules in the nightside. The prominent dark feature in the center of the image is Aphrodite Terra, the largest highland region on the Venusian surface. Bright streaks in WISPR, such as the ones seen here, are typically caused by a combination of charged particles — called cosmic rays — sunlight reflected by grains of space dust, and particles of material expelled from the spacecraft’s structures after impact with those dust grains. The number of streaks varies along the orbit or when the spacecraft is traveling at different speeds, and scientists are still in discussion about the specific origins of the streaks here. The dark spot appearing on the lower portion of Venus is an artifact from the WISPR instrument.

Credit: NASA/APL/NRL

IMAGEThe Magellan mission mapped the surface of Venus with radar in the 1990s. The images gave the first global view of what was below Venus’ thick clouds. This radar image aligns with the surface features seen on WISPR images captured by Parker Solar Probe during its third flyby of the planet in July 2020.Credit: Magellan Team/JPL/USGS

IMAGE

The Magellan mission mapped the surface of Venus with radar in the 1990s. The images gave the first global view of what was below Venus’ thick clouds. This radar image aligns with the surface features seen on WISPR images captured by Parker Solar Probe during its third flyby of the planet in July 2020.

Credit: Magellan Team/JPL/USGS

IMAGEThe first visible light images of Venus were taken by the Soviet Union’s Venera program when spacecraft landed on the planet’s surface in the 1970s and 1980s. This image was captured by the Venera 9 and 10 spacecraft.Credit: NASA/NSSDCA/Courtesy of the USSR

IMAGE

The first visible light images of Venus were taken by the Soviet Union’s Venera program when spacecraft landed on the planet’s surface in the 1970s and 1980s. This image was captured by the Venera 9 and 10 spacecraft.

Credit: NASA/NSSDCA/Courtesy of the USSR

IMAGEThe first visible light images of Venus were taken by the Soviet Union’s Venera program when spacecraft landed on the planet’s surface in the 1970s and 1980s. This image was captured by the Venera 13 spacecraft.Credit: NASA/NSSDCA/Courtesy of the USSR

IMAGE

The first visible light images of Venus were taken by the Soviet Union’s Venera program when spacecraft landed on the planet’s surface in the 1970s and 1980s. This image was captured by the Venera 13 spacecraft.

Credit: NASA/NSSDCA/Courtesy of the USSR

IMAGEThe first visible light images of Venus were taken by the Soviet Union’s Venera program when spacecraft landed on the planet’s surface in the 1970s and 1980s. This image was captured by the left camera on the Venera 13 spacecraft.Credit: NASA/NSSDCA/Courtesy of the USSR

IMAGE

The first visible light images of Venus were taken by the Soviet Union’s Venera program when spacecraft landed on the planet’s surface in the 1970s and 1980s. This image was captured by the left camera on the Venera 13 spacecraft.

Credit: NASA/NSSDCA/Courtesy of the USSR

IMAGEThe first visible light images of Venus were taken by the Soviet Union’s Venera program when spacecraft landed on the planet’s surface in the 1970s and 1980s. This image was captured by the right camera on the Venera 13 spacecraft.Credit: NASA/NSSDCA/Courtesy of the USSR

IMAGE

The first visible light images of Venus were taken by the Soviet Union’s Venera program when spacecraft landed on the planet’s surface in the 1970s and 1980s. This image was captured by the right camera on the Venera 13 spacecraft.

Credit: NASA/NSSDCA/Courtesy of the USSR

IMAGEThe first visible light images of Venus were taken by the Soviet Union’s Venera program when spacecraft landed on the planet’s surface in the 1970s and 1980s. This image was captured by the Venera 14 spacecraft.Credit: NASA/NSSDCA/Courtesy of the USSR

IMAGE

The first visible light images of Venus were taken by the Soviet Union’s Venera program when spacecraft landed on the planet’s surface in the 1970s and 1980s. This image was captured by the Venera 14 spacecraft.

Credit: NASA/NSSDCA/Courtesy of the USSR

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This page was originally published on Wednesday, February 9, 2022.
This page was last updated on Wednesday, May 3, 2023 at 1:37 PM EDT.

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