File:Jupiter (November 2022 and January 2023) (heic2303b).jpg
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[edit]DescriptionJupiter (November 2022 and January 2023) (heic2303b).jpg |
English: [LEFT] - The forecast for Jupiter is for stormy weather at low northern latitudes. A prominent string of alternating storms is visible, forming a ‘vortex street’ as some planetary astronomers call it. This is a wave pattern of nested cyclones and anticyclones, locked together like the alternating gears of a machine moving clockwise and counterclockwise. If the storms get close enough to each other and merge together, they could build an even larger storm, potentially rivalling the current size of the Great Red Spot. The staggered pattern of cyclones and anticyclones prevents individual storms from merging. Activity is also seen interior to these storms; in the 1990s Hubble didn’t see any cyclones or anticyclones with built-in thunderstorms, but these storms have sprung up in the last decade. Strong colour differences indicate that Hubble is seeing different cloud heights and depths as well.The orange moon Io photobombs this view of Jupiter’s multicoloured cloud tops, casting a shadow toward the planet’s western limb. Hubble’s resolution is so sharp that it can see Io’s mottled-orange appearance, the result of its numerous active volcanoes. These volcanoes were first discovered when the Voyager 1 spacecraft flew by in 1979. The moon’s molten interior is overlaid by a thin crust through which the volcanoes eject material. Sulphur takes on various hues at different temperatures, which is why Io’s surface is so colourful. This image was taken on 12 November 2022.[RIGHT] - Jupiter’s legendary Great Red Spot takes centre stage in this view. Though this vortex is big enough to swallow Earth, it has actually shrunk to the smallest size it has ever been according to observation records dating back 150 years. Jupiter’s icy moon Ganymede can be seen transiting the giant planet at lower right. Slightly larger than the planet Mercury, Ganymede is the largest moon in the Solar System. It is a cratered world and has a mainly water-ice surface with apparent glacial flows driven by internal heat. This image was taken on 6 January 2023.This image is smaller in size because Jupiter was 130,000 kilometres farther from Earth when the image was taken.[Image description: Two views of the giant gas planet Jupiter appear side-by-side for comparison.] |
Date | 23 March 2023 (upload date) |
Source | Jupiter (November 2022 and January 2023) |
Author | NASA, ESA, STScI, A. Simon (NASA-GSFC), M. H. Wong (UC Berkeley), J. DePasquale (STScI) |
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[edit]ESA/Hubble images, videos and web texts are released by the ESA under the Creative Commons Attribution 4.0 International license and may on a non-exclusive basis be reproduced without fee provided they are clearly and visibly credited. Detailed conditions are below; see the ESA copyright statement for full information. For images created by NASA or on the hubblesite.org website, or for ESA/Hubble images on the esahubble.org site before 2009, use the {{PD-Hubble}} tag.
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Author | Space Telescope Science Institute Office of Public Outreach |
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Source | ESA/Hubble |
Credit/Provider | NASA, ESA, STScI, A. Simon (NASA-GSFC), M. H. Wong (UC Berkeley), J. DePasquale (STScI) |
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Date and time of data generation | 15:00, 23 March 2023 |
JPEG file comment | Ever since its launch in 1990, NASA’s Hubble Space Telescope has been an interplanetary weather observer for keeping an eye on the largely gaseous outer planets, which all have ever-changing atmospheres. NASA spacecraft missions to the outer planets have given us a close-up look at these atmospheres, but Hubble’s sharpness and sensitivity keeps an unblinking eye on an ever-changing kaleidoscope of complex activities long after those missions have ended. Inaugurated in 2014, the telescope’s Outer Planet Atmospheres Legacy (OPAL) Program has been providing us with yearly views of the giant planets. JUPITER [left] The forecast for Jupiter is stormy weather at low northern latitudes. A prominent string of alternating storms is visible, forming a “vortex street” as some planetary astronomers call it. This is a wave pattern of nested anticyclones and cyclones, locked together like in a machine with alternating gears moving clockwise and counterclockwise. This particular cycle is something that hasn’t been seen for many decades, say researchers. If the storms get close enough to each other and merge together, they could build an even larger storm, potentially rivaling the current size of the Great Red Spot. Activity is also seen interior to these storms; in the 1990s Hubble didn’t see any cyclones or anticyclones with built-in thunderstorms, but these storms have sprung up the last decade. Strong color differences indicate that Hubble is seeing different cloud heights and depths as well. The orange moon Io photobombs this view of Jupiter’s multicolored cloud tops, casting a shadow toward the planet’s western limb. Hubble’s sharpness is so good it can see Io’s mottled-orange appearance that ties into its numerous active volcanoes. These were first discovered by the Voyager spacraft that flew by Jupiter in 1980. The moon’s molten interior of sulfur and rocky lava is overlaid by a thin crust through which the volcanoes eject material. Sulfur takes on various hues at different temperatures, which is why Io’s surface is so colorful. This photo was taken on November 12, 2022. [right] Jupiter’s legendary Great Red Spot takes center stage in this view. Though this vortex is big enough to swallow Earth, it has actually shrunken to the smallest size it has ever been over observation records dating back 150 years. Jupiter’s icy moon Ganymede can be seen transiting the giant planet at lower right. Slightly larger than the planet Mercury, Ganymede is the largest moon in the solar system. It is a cratered world with a mainly water-ice surface with apparent glacial flows driven by internal heat. (This image is smaller in size because Jupiter was 81,000 miles farther from Earth when the photo was taken). This photo was taken on January 6, 2023. |
Software used | Adobe Photoshop 24.1 (Macintosh) |
File change date and time | 15:41, 7 March 2023 |
Date and time of digitizing | 11:52, 7 February 2023 |
Date metadata was last modified | 07:01, 9 March 2023 |
Unique ID of original document | xmp.did:6392af3e-c3ca-42ba-82cc-119903f2c47f |
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Contact information | [email protected]
ESA Office, Space Telescope Science Institute, 3700 San Martin Dr Baltimore, MD, 21218 United States |
IIM version | 4 |