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#astroart — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #astroart, aggregated by home.social.

  1. Bright Moon surrounded by stars, captured against the night sky with subtle star trails adding a sense of motion and time.

    Over 12 images were used in making this composite.

    More about me and prints
    linktr.ee/steven.sandner

    #MoonPhotography #NightscapeLovers #AstroArt

  2. Bright Moon surrounded by stars, captured against the night sky with subtle star trails adding a sense of motion and time.

    Over 12 images were used in making this composite.

    More about me and prints
    linktr.ee/steven.sandner

    #MoonPhotography #NightscapeLovers #AstroArt

  3. Bright Moon surrounded by stars, captured against the night sky with subtle star trails adding a sense of motion and time.

    Over 12 images were used in making this composite.

    More about me and prints
    linktr.ee/steven.sandner

    #MoonPhotography #NightscapeLovers #AstroArt

  4. Bright Moon surrounded by stars, captured against the night sky with subtle star trails adding a sense of motion and time.

    Over 12 images were used in making this composite.

    More about me and prints
    linktr.ee/steven.sandner

    #MoonPhotography #NightscapeLovers #AstroArt

  5. 2026 April 16

    South Celestial Tree
    * Image Credit & Copyright: Kiko Fairbairn
    app.astrobin.com/u/kiko.fairba
    * Text: Cecilia Chirenti (NASA GSFC, UMCP, CRESST II)
    science.gsfc.nasa.gov/sci/bio/

    Explanation:
    If you live in the northern hemisphere, you may have learned how to locate the North Star, Polaris, in the night sky. It can be used to find north, and it approximately marks the northern celestial pole. If you live in the southern hemisphere, there is no bright star marking the southern celestial pole, but the Southern Cross can be used to find south. The featured image was taken in Padre Bernardo (GO), Brazil. It shows the apparent motion of the stars around the apparently empty southern celestial pole over 2 hours, on August 20, 2018. Each star takes about 24 hours to make a complete turn around the pole in the sky. Padre Bernardo is located in the Cerrado region, a tropical savanna that occupies most of central Brazil and supports rich biodiversity. The dry branch that apparently supports this sky wheel of rotating stars is a common sight there in the dry season during the southern winter.
    timeanddate.com/geography/sout
    science.nasa.gov/solar-system/
    apod.nasa.gov/apod/ap250114.ht
    apod.nasa.gov/apod/ap220728.ht
    en.wikipedia.org/wiki/Crux
    en.wikipedia.org/wiki/Padre_Be
    britannica.com/place/Goias-sta
    en.wikipedia.org/wiki/Brazil
    astronomy.swin.edu.au/cosmos/s
    science.nasa.gov/earth/earth-o
    en.wikipedia.org/wiki/Giant_an
    en.wikipedia.org/wiki/Cerrado#

    apod.nasa.gov/apod/ap260416.ht

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  6. 2026 April 16

    South Celestial Tree
    * Image Credit & Copyright: Kiko Fairbairn
    app.astrobin.com/u/kiko.fairba
    * Text: Cecilia Chirenti (NASA GSFC, UMCP, CRESST II)
    science.gsfc.nasa.gov/sci/bio/

    Explanation:
    If you live in the northern hemisphere, you may have learned how to locate the North Star, Polaris, in the night sky. It can be used to find north, and it approximately marks the northern celestial pole. If you live in the southern hemisphere, there is no bright star marking the southern celestial pole, but the Southern Cross can be used to find south. The featured image was taken in Padre Bernardo (GO), Brazil. It shows the apparent motion of the stars around the apparently empty southern celestial pole over 2 hours, on August 20, 2018. Each star takes about 24 hours to make a complete turn around the pole in the sky. Padre Bernardo is located in the Cerrado region, a tropical savanna that occupies most of central Brazil and supports rich biodiversity. The dry branch that apparently supports this sky wheel of rotating stars is a common sight there in the dry season during the southern winter.
    timeanddate.com/geography/sout
    science.nasa.gov/solar-system/
    apod.nasa.gov/apod/ap250114.ht
    apod.nasa.gov/apod/ap220728.ht
    en.wikipedia.org/wiki/Crux
    en.wikipedia.org/wiki/Padre_Be
    britannica.com/place/Goias-sta
    en.wikipedia.org/wiki/Brazil
    astronomy.swin.edu.au/cosmos/s
    science.nasa.gov/earth/earth-o
    en.wikipedia.org/wiki/Giant_an
    en.wikipedia.org/wiki/Cerrado#

    apod.nasa.gov/apod/ap260416.ht

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  7. 2026 April 16

    South Celestial Tree
    * Image Credit & Copyright: Kiko Fairbairn
    app.astrobin.com/u/kiko.fairba
    * Text: Cecilia Chirenti (NASA GSFC, UMCP, CRESST II)
    science.gsfc.nasa.gov/sci/bio/

    Explanation:
    If you live in the northern hemisphere, you may have learned how to locate the North Star, Polaris, in the night sky. It can be used to find north, and it approximately marks the northern celestial pole. If you live in the southern hemisphere, there is no bright star marking the southern celestial pole, but the Southern Cross can be used to find south. The featured image was taken in Padre Bernardo (GO), Brazil. It shows the apparent motion of the stars around the apparently empty southern celestial pole over 2 hours, on August 20, 2018. Each star takes about 24 hours to make a complete turn around the pole in the sky. Padre Bernardo is located in the Cerrado region, a tropical savanna that occupies most of central Brazil and supports rich biodiversity. The dry branch that apparently supports this sky wheel of rotating stars is a common sight there in the dry season during the southern winter.
    timeanddate.com/geography/sout
    science.nasa.gov/solar-system/
    apod.nasa.gov/apod/ap250114.ht
    apod.nasa.gov/apod/ap220728.ht
    en.wikipedia.org/wiki/Crux
    en.wikipedia.org/wiki/Padre_Be
    britannica.com/place/Goias-sta
    en.wikipedia.org/wiki/Brazil
    astronomy.swin.edu.au/cosmos/s
    science.nasa.gov/earth/earth-o
    en.wikipedia.org/wiki/Giant_an
    en.wikipedia.org/wiki/Cerrado#

    apod.nasa.gov/apod/ap260416.ht

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  8. 2026 April 16

    South Celestial Tree
    * Image Credit & Copyright: Kiko Fairbairn
    app.astrobin.com/u/kiko.fairba
    * Text: Cecilia Chirenti (NASA GSFC, UMCP, CRESST II)
    science.gsfc.nasa.gov/sci/bio/

    Explanation:
    If you live in the northern hemisphere, you may have learned how to locate the North Star, Polaris, in the night sky. It can be used to find north, and it approximately marks the northern celestial pole. If you live in the southern hemisphere, there is no bright star marking the southern celestial pole, but the Southern Cross can be used to find south. The featured image was taken in Padre Bernardo (GO), Brazil. It shows the apparent motion of the stars around the apparently empty southern celestial pole over 2 hours, on August 20, 2018. Each star takes about 24 hours to make a complete turn around the pole in the sky. Padre Bernardo is located in the Cerrado region, a tropical savanna that occupies most of central Brazil and supports rich biodiversity. The dry branch that apparently supports this sky wheel of rotating stars is a common sight there in the dry season during the southern winter.
    timeanddate.com/geography/sout
    science.nasa.gov/solar-system/
    apod.nasa.gov/apod/ap250114.ht
    apod.nasa.gov/apod/ap220728.ht
    en.wikipedia.org/wiki/Crux
    en.wikipedia.org/wiki/Padre_Be
    britannica.com/place/Goias-sta
    en.wikipedia.org/wiki/Brazil
    astronomy.swin.edu.au/cosmos/s
    science.nasa.gov/earth/earth-o
    en.wikipedia.org/wiki/Giant_an
    en.wikipedia.org/wiki/Cerrado#

    apod.nasa.gov/apod/ap260416.ht

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  9. 2026 April 16

    South Celestial Tree
    * Image Credit & Copyright: Kiko Fairbairn
    app.astrobin.com/u/kiko.fairba
    * Text: Cecilia Chirenti (NASA GSFC, UMCP, CRESST II)
    science.gsfc.nasa.gov/sci/bio/

    Explanation:
    If you live in the northern hemisphere, you may have learned how to locate the North Star, Polaris, in the night sky. It can be used to find north, and it approximately marks the northern celestial pole. If you live in the southern hemisphere, there is no bright star marking the southern celestial pole, but the Southern Cross can be used to find south. The featured image was taken in Padre Bernardo (GO), Brazil. It shows the apparent motion of the stars around the apparently empty southern celestial pole over 2 hours, on August 20, 2018. Each star takes about 24 hours to make a complete turn around the pole in the sky. Padre Bernardo is located in the Cerrado region, a tropical savanna that occupies most of central Brazil and supports rich biodiversity. The dry branch that apparently supports this sky wheel of rotating stars is a common sight there in the dry season during the southern winter.
    timeanddate.com/geography/sout
    science.nasa.gov/solar-system/
    apod.nasa.gov/apod/ap250114.ht
    apod.nasa.gov/apod/ap220728.ht
    en.wikipedia.org/wiki/Crux
    en.wikipedia.org/wiki/Padre_Be
    britannica.com/place/Goias-sta
    en.wikipedia.org/wiki/Brazil
    astronomy.swin.edu.au/cosmos/s
    science.nasa.gov/earth/earth-o
    en.wikipedia.org/wiki/Giant_an
    en.wikipedia.org/wiki/Cerrado#

    apod.nasa.gov/apod/ap260416.ht

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  10. 2026 March 20

    Spring Equinox at Teide Observatory
    * Image Credit & Copyright: Juan Carlos Casado (Starry Earth, TWAN)
    twanight.org/profile/juan-carl

    Explanation:
    The defining astronomical moment of the equinox today is at 14:46 UTC (March 20). That's when the Sun crosses the celestial equator moving north in its yearly journey through planet Earth's sky, marking the beginning of spring for our fair planet in the northern hemisphere and fall in the southern hemisphere. Then, day and night are nearly equal around the globe. In fact, both day and nighttime exposures from a spring equinox at the Observatorio del Teide in Tenerife, Canary Islands, Spain, are used in this composited skyscape. Over 1,000 images were taken with a fisheye lens, later corrected for distortion and merged for the ambitious equinox project. The apparent motion of the Sun setting along the celestial equator on the equinox date follows the bright linear, diagonal track from the sequence of daytime exposures taken over 6 hours. After sunset, nighttime exposures recorded startrails, with the celestial equator as a linear track and concentric arcs circling the north celestial pole near Polaris at upper right and the south celestial pole beyond the lower left edge (and below the Teide horizon). The foreground includes the distant Teide volcano peak and the observatory's pyramid-shaped solar laboratory building.
    science.nasa.gov/solar-system/
    timeanddate.com/calendar/march
    svs.gsfc.nasa.gov/11353
    iac.es/en/observatorios-de-can
    apod.nasa.gov/apod/ap260320.ht
    apod.nasa.gov/apod/ap021115.ht
    apod.nasa.gov/apod/ap231203.ht
    apod.nasa.gov/apod/ap121213.ht

    apod.nasa.gov/apod/ap260320.ht

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  11. 2026 March 20

    Spring Equinox at Teide Observatory
    * Image Credit & Copyright: Juan Carlos Casado (Starry Earth, TWAN)
    twanight.org/profile/juan-carl

    Explanation:
    The defining astronomical moment of the equinox today is at 14:46 UTC (March 20). That's when the Sun crosses the celestial equator moving north in its yearly journey through planet Earth's sky, marking the beginning of spring for our fair planet in the northern hemisphere and fall in the southern hemisphere. Then, day and night are nearly equal around the globe. In fact, both day and nighttime exposures from a spring equinox at the Observatorio del Teide in Tenerife, Canary Islands, Spain, are used in this composited skyscape. Over 1,000 images were taken with a fisheye lens, later corrected for distortion and merged for the ambitious equinox project. The apparent motion of the Sun setting along the celestial equator on the equinox date follows the bright linear, diagonal track from the sequence of daytime exposures taken over 6 hours. After sunset, nighttime exposures recorded startrails, with the celestial equator as a linear track and concentric arcs circling the north celestial pole near Polaris at upper right and the south celestial pole beyond the lower left edge (and below the Teide horizon). The foreground includes the distant Teide volcano peak and the observatory's pyramid-shaped solar laboratory building.
    science.nasa.gov/solar-system/
    timeanddate.com/calendar/march
    svs.gsfc.nasa.gov/11353
    iac.es/en/observatorios-de-can
    apod.nasa.gov/apod/ap260320.ht
    apod.nasa.gov/apod/ap021115.ht
    apod.nasa.gov/apod/ap231203.ht
    apod.nasa.gov/apod/ap121213.ht

    apod.nasa.gov/apod/ap260320.ht

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  12. 2026 March 20

    Spring Equinox at Teide Observatory
    * Image Credit & Copyright: Juan Carlos Casado (Starry Earth, TWAN)
    twanight.org/profile/juan-carl

    Explanation:
    The defining astronomical moment of the equinox today is at 14:46 UTC (March 20). That's when the Sun crosses the celestial equator moving north in its yearly journey through planet Earth's sky, marking the beginning of spring for our fair planet in the northern hemisphere and fall in the southern hemisphere. Then, day and night are nearly equal around the globe. In fact, both day and nighttime exposures from a spring equinox at the Observatorio del Teide in Tenerife, Canary Islands, Spain, are used in this composited skyscape. Over 1,000 images were taken with a fisheye lens, later corrected for distortion and merged for the ambitious equinox project. The apparent motion of the Sun setting along the celestial equator on the equinox date follows the bright linear, diagonal track from the sequence of daytime exposures taken over 6 hours. After sunset, nighttime exposures recorded startrails, with the celestial equator as a linear track and concentric arcs circling the north celestial pole near Polaris at upper right and the south celestial pole beyond the lower left edge (and below the Teide horizon). The foreground includes the distant Teide volcano peak and the observatory's pyramid-shaped solar laboratory building.
    science.nasa.gov/solar-system/
    timeanddate.com/calendar/march
    svs.gsfc.nasa.gov/11353
    iac.es/en/observatorios-de-can
    apod.nasa.gov/apod/ap260320.ht
    apod.nasa.gov/apod/ap021115.ht
    apod.nasa.gov/apod/ap231203.ht
    apod.nasa.gov/apod/ap121213.ht

    apod.nasa.gov/apod/ap260320.ht

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  13. 2026 March 20

    Spring Equinox at Teide Observatory
    * Image Credit & Copyright: Juan Carlos Casado (Starry Earth, TWAN)
    twanight.org/profile/juan-carl

    Explanation:
    The defining astronomical moment of the equinox today is at 14:46 UTC (March 20). That's when the Sun crosses the celestial equator moving north in its yearly journey through planet Earth's sky, marking the beginning of spring for our fair planet in the northern hemisphere and fall in the southern hemisphere. Then, day and night are nearly equal around the globe. In fact, both day and nighttime exposures from a spring equinox at the Observatorio del Teide in Tenerife, Canary Islands, Spain, are used in this composited skyscape. Over 1,000 images were taken with a fisheye lens, later corrected for distortion and merged for the ambitious equinox project. The apparent motion of the Sun setting along the celestial equator on the equinox date follows the bright linear, diagonal track from the sequence of daytime exposures taken over 6 hours. After sunset, nighttime exposures recorded startrails, with the celestial equator as a linear track and concentric arcs circling the north celestial pole near Polaris at upper right and the south celestial pole beyond the lower left edge (and below the Teide horizon). The foreground includes the distant Teide volcano peak and the observatory's pyramid-shaped solar laboratory building.
    science.nasa.gov/solar-system/
    timeanddate.com/calendar/march
    svs.gsfc.nasa.gov/11353
    iac.es/en/observatorios-de-can
    apod.nasa.gov/apod/ap260320.ht
    apod.nasa.gov/apod/ap021115.ht
    apod.nasa.gov/apod/ap231203.ht
    apod.nasa.gov/apod/ap121213.ht

    apod.nasa.gov/apod/ap260320.ht

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  14. 2026 March 20

    Spring Equinox at Teide Observatory
    * Image Credit & Copyright: Juan Carlos Casado (Starry Earth, TWAN)
    twanight.org/profile/juan-carl

    Explanation:
    The defining astronomical moment of the equinox today is at 14:46 UTC (March 20). That's when the Sun crosses the celestial equator moving north in its yearly journey through planet Earth's sky, marking the beginning of spring for our fair planet in the northern hemisphere and fall in the southern hemisphere. Then, day and night are nearly equal around the globe. In fact, both day and nighttime exposures from a spring equinox at the Observatorio del Teide in Tenerife, Canary Islands, Spain, are used in this composited skyscape. Over 1,000 images were taken with a fisheye lens, later corrected for distortion and merged for the ambitious equinox project. The apparent motion of the Sun setting along the celestial equator on the equinox date follows the bright linear, diagonal track from the sequence of daytime exposures taken over 6 hours. After sunset, nighttime exposures recorded startrails, with the celestial equator as a linear track and concentric arcs circling the north celestial pole near Polaris at upper right and the south celestial pole beyond the lower left edge (and below the Teide horizon). The foreground includes the distant Teide volcano peak and the observatory's pyramid-shaped solar laboratory building.
    science.nasa.gov/solar-system/
    timeanddate.com/calendar/march
    svs.gsfc.nasa.gov/11353
    iac.es/en/observatorios-de-can
    apod.nasa.gov/apod/ap260320.ht
    apod.nasa.gov/apod/ap021115.ht
    apod.nasa.gov/apod/ap231203.ht
    apod.nasa.gov/apod/ap121213.ht

    apod.nasa.gov/apod/ap260320.ht

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  15. 2026 March 13

    Toolondo Totality Trails
    * Image Credit & Copyright: Jason Perry
    pdogastrophotography.com/about

    Explanation:
    In this composited night skyscape, stacked exposures trace graceful star trails above Lake Toolondo, Victoria, Australia, planet Earth. Captured while the lunar eclipse of March 3 was in progress, the exposures used were made during the hour-long total eclipse phase. So faint star trails are easily visible along with the trail of the reddened Moon in the eclipse-darkened skies above the lake and trees. Of course, the apparent motion of Moon and stars revealed in the timelapse composite reflect the Earth's daily rotation around its axis. Dramatically punctuating the Moon's trail as totality ended, a single, separate telephoto image of the totally eclipsed Moon was scaled and blended into the scene.
    science.nasa.gov/moon/eclipses/
    svs.gsfc.nasa.gov/5604
    apod.nasa.gov/apod/ap260307.ht
    apod.nasa.gov/apod/ap260305.ht
    apod.nasa.gov/apod/ap230922.ht
    apod.nasa.gov/apod/ap240817.ht

    apod.nasa.gov/apod/fap/ap26031

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  16. 2026 March 13

    Toolondo Totality Trails
    * Image Credit & Copyright: Jason Perry
    pdogastrophotography.com/about

    Explanation:
    In this composited night skyscape, stacked exposures trace graceful star trails above Lake Toolondo, Victoria, Australia, planet Earth. Captured while the lunar eclipse of March 3 was in progress, the exposures used were made during the hour-long total eclipse phase. So faint star trails are easily visible along with the trail of the reddened Moon in the eclipse-darkened skies above the lake and trees. Of course, the apparent motion of Moon and stars revealed in the timelapse composite reflect the Earth's daily rotation around its axis. Dramatically punctuating the Moon's trail as totality ended, a single, separate telephoto image of the totally eclipsed Moon was scaled and blended into the scene.
    science.nasa.gov/moon/eclipses/
    svs.gsfc.nasa.gov/5604
    apod.nasa.gov/apod/ap260307.ht
    apod.nasa.gov/apod/ap260305.ht
    apod.nasa.gov/apod/ap230922.ht
    apod.nasa.gov/apod/ap240817.ht

    apod.nasa.gov/apod/fap/ap26031

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  17. 2026 March 13

    Toolondo Totality Trails
    * Image Credit & Copyright: Jason Perry
    pdogastrophotography.com/about

    Explanation:
    In this composited night skyscape, stacked exposures trace graceful star trails above Lake Toolondo, Victoria, Australia, planet Earth. Captured while the lunar eclipse of March 3 was in progress, the exposures used were made during the hour-long total eclipse phase. So faint star trails are easily visible along with the trail of the reddened Moon in the eclipse-darkened skies above the lake and trees. Of course, the apparent motion of Moon and stars revealed in the timelapse composite reflect the Earth's daily rotation around its axis. Dramatically punctuating the Moon's trail as totality ended, a single, separate telephoto image of the totally eclipsed Moon was scaled and blended into the scene.
    science.nasa.gov/moon/eclipses/
    svs.gsfc.nasa.gov/5604
    apod.nasa.gov/apod/ap260307.ht
    apod.nasa.gov/apod/ap260305.ht
    apod.nasa.gov/apod/ap230922.ht
    apod.nasa.gov/apod/ap240817.ht

    apod.nasa.gov/apod/fap/ap26031

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  18. 2026 March 13

    Toolondo Totality Trails
    * Image Credit & Copyright: Jason Perry
    pdogastrophotography.com/about

    Explanation:
    In this composited night skyscape, stacked exposures trace graceful star trails above Lake Toolondo, Victoria, Australia, planet Earth. Captured while the lunar eclipse of March 3 was in progress, the exposures used were made during the hour-long total eclipse phase. So faint star trails are easily visible along with the trail of the reddened Moon in the eclipse-darkened skies above the lake and trees. Of course, the apparent motion of Moon and stars revealed in the timelapse composite reflect the Earth's daily rotation around its axis. Dramatically punctuating the Moon's trail as totality ended, a single, separate telephoto image of the totally eclipsed Moon was scaled and blended into the scene.
    science.nasa.gov/moon/eclipses/
    svs.gsfc.nasa.gov/5604
    apod.nasa.gov/apod/ap260307.ht
    apod.nasa.gov/apod/ap260305.ht
    apod.nasa.gov/apod/ap230922.ht
    apod.nasa.gov/apod/ap240817.ht

    apod.nasa.gov/apod/fap/ap26031

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  19. 2026 March 13

    Toolondo Totality Trails
    * Image Credit & Copyright: Jason Perry
    pdogastrophotography.com/about

    Explanation:
    In this composited night skyscape, stacked exposures trace graceful star trails above Lake Toolondo, Victoria, Australia, planet Earth. Captured while the lunar eclipse of March 3 was in progress, the exposures used were made during the hour-long total eclipse phase. So faint star trails are easily visible along with the trail of the reddened Moon in the eclipse-darkened skies above the lake and trees. Of course, the apparent motion of Moon and stars revealed in the timelapse composite reflect the Earth's daily rotation around its axis. Dramatically punctuating the Moon's trail as totality ended, a single, separate telephoto image of the totally eclipsed Moon was scaled and blended into the scene.
    science.nasa.gov/moon/eclipses/
    svs.gsfc.nasa.gov/5604
    apod.nasa.gov/apod/ap260307.ht
    apod.nasa.gov/apod/ap260305.ht
    apod.nasa.gov/apod/ap230922.ht
    apod.nasa.gov/apod/ap240817.ht

    apod.nasa.gov/apod/fap/ap26031

    #space #earth #astrophotography #photography #astroart #art #science #nature #education #apod

  20. One of my favorite things about #astronomy is how well it goes with #art and spacing out generally. Since I can't go into the telescopes atm, had a bit of fun. Def recommend #watercolour paints for #planets .

    Obviously these ones are destined for a fabulous collision due to their proximity but it makes for some fun #scifi thoughts. Please imagine at least 1 is traveling escape velocity and will get away.

    #Astrodon #sciart #science #saturday #AstroArt #fediart #astro

  21. One of my favorite things about #astronomy is how well it goes with #art and spacing out generally. Since I can't go into the telescopes atm, had a bit of fun. Def recommend #watercolour paints for #planets .

    Obviously these ones are destined for a fabulous collision due to their proximity but it makes for some fun #scifi thoughts. Please imagine at least 1 is traveling escape velocity and will get away.

    #Astrodon #sciart #science #saturday #AstroArt #fediart #astro

  22. One of my favorite things about #astronomy is how well it goes with #art and spacing out generally. Since I can't go into the telescopes atm, had a bit of fun. Def recommend #watercolour paints for #planets .

    Obviously these ones are destined for a fabulous collision due to their proximity but it makes for some fun #scifi thoughts. Please imagine at least 1 is traveling escape velocity and will get away.

    #Astrodon #sciart #science #saturday #AstroArt #fediart #astro

  23. One of my favorite things about #astronomy is how well it goes with #art and spacing out generally. Since I can't go into the telescopes atm, had a bit of fun. Def recommend #watercolour paints for #planets .

    Obviously these ones are destined for a fabulous collision due to their proximity but it makes for some fun #scifi thoughts. Please imagine at least 1 is traveling escape velocity and will get away.

    #Astrodon #sciart #science #saturday #AstroArt #fediart #astro

  24. One of my favorite things about #astronomy is how well it goes with #art and spacing out generally. Since I can't go into the telescopes atm, had a bit of fun. Def recommend #watercolour paints for #planets .

    Obviously these ones are destined for a fabulous collision due to their proximity but it makes for some fun #scifi thoughts. Please imagine at least 1 is traveling escape velocity and will get away.

    #Astrodon #sciart #science #saturday #AstroArt #fediart #astro

  25. Fat stars done! They’re fun to do. Need to add some luminosity around Antares and a few other spots, probably do that fast with airbrush, then the geometry begins! 😎 @Curator #MastoArt #spaceart #scorpius #constellation #zodiac #painting #astroart #geometricart

  26. Fat stars done! They’re fun to do. Need to add some luminosity around Antares and a few other spots, probably do that fast with airbrush, then the geometry begins! 😎 @Curator #MastoArt #spaceart #scorpius #constellation #zodiac #painting #astroart #geometricart

  27. Fat stars done! They’re fun to do. Need to add some luminosity around Antares and a few other spots, probably do that fast with airbrush, then the geometry begins! 😎 @Curator #MastoArt #spaceart #scorpius #constellation #zodiac #painting #astroart #geometricart

  28. Fat stars done! They’re fun to do. Need to add some luminosity around Antares and a few other spots, probably do that fast with airbrush, then the geometry begins! 😎 @Curator #MastoArt #spaceart #scorpius #constellation #zodiac #painting #astroart #geometricart

  29. Starting my next big space painting! Projector used to project my layout and quickly but accurately mark where all the important stars and other objects are. Can you figure out the subject? 😊 @Curator #MastoArt #spaceart #astroart #painting #geometricart

  30. Starting my next big space painting! Projector used to project my layout and quickly but accurately mark where all the important stars and other objects are. Can you figure out the subject? 😊 @Curator #MastoArt #spaceart #astroart #painting #geometricart

  31. Starting my next big space painting! Projector used to project my layout and quickly but accurately mark where all the important stars and other objects are. Can you figure out the subject? 😊 @Curator #MastoArt #spaceart #astroart #painting #geometricart

  32. Starting my next big space painting! Projector used to project my layout and quickly but accurately mark where all the important stars and other objects are. Can you figure out the subject? 😊 @Curator #MastoArt #spaceart #astroart #painting #geometricart

  33. 2025 September 13

    Star Trails over One-Mile Radio Telescope
    * Image Credit & Copyright: Joao Yordanov Serralheiro
    joaoysphotography.com/about

    Explanation:
    The steerable 60 foot diameter dish antenna of the One-Mile Telescope at Mullard Radio Astronomy Observatory, Cambridge, UK, is pointing skyward in this evocative night-skyscape. To capture the dramatic scene, consecutive 30 second exposures were recorded over a period of 90 minutes. Combined, the exposures reveal a background of gracefully arcing star trails that reflect planet Earth's daily rotation on its axis. The North Celestial Pole, the extension of Earth's axis of rotation into space, points near Polaris, the North Star. That's the bright star that creates the short trail near the center of the concentric arcs. But the historic One-Mile Telescope array also relied on planet Earth's rotation to operate. Exploring the universe at radio wavelengths, it was the first radio telescope to use Earth-rotation aperture synthesis. That technique uses the rotation of the Earth to change the relative orientation of the telescope array and celestial radio sources to create radio maps of the sky at a resolution better than that of the human eye.

    apod.nasa.gov/apod/ap250913.ht

    #space #earth #astrophotography #photography #astroart #science #nature

  34. 2025 September 13

    Star Trails over One-Mile Radio Telescope
    * Image Credit & Copyright: Joao Yordanov Serralheiro
    joaoysphotography.com/about

    Explanation:
    The steerable 60 foot diameter dish antenna of the One-Mile Telescope at Mullard Radio Astronomy Observatory, Cambridge, UK, is pointing skyward in this evocative night-skyscape. To capture the dramatic scene, consecutive 30 second exposures were recorded over a period of 90 minutes. Combined, the exposures reveal a background of gracefully arcing star trails that reflect planet Earth's daily rotation on its axis. The North Celestial Pole, the extension of Earth's axis of rotation into space, points near Polaris, the North Star. That's the bright star that creates the short trail near the center of the concentric arcs. But the historic One-Mile Telescope array also relied on planet Earth's rotation to operate. Exploring the universe at radio wavelengths, it was the first radio telescope to use Earth-rotation aperture synthesis. That technique uses the rotation of the Earth to change the relative orientation of the telescope array and celestial radio sources to create radio maps of the sky at a resolution better than that of the human eye.

    apod.nasa.gov/apod/ap250913.ht

    #space #earth #astrophotography #photography #astroart #science #nature

  35. 2025 September 13

    Star Trails over One-Mile Radio Telescope
    * Image Credit & Copyright: Joao Yordanov Serralheiro
    joaoysphotography.com/about

    Explanation:
    The steerable 60 foot diameter dish antenna of the One-Mile Telescope at Mullard Radio Astronomy Observatory, Cambridge, UK, is pointing skyward in this evocative night-skyscape. To capture the dramatic scene, consecutive 30 second exposures were recorded over a period of 90 minutes. Combined, the exposures reveal a background of gracefully arcing star trails that reflect planet Earth's daily rotation on its axis. The North Celestial Pole, the extension of Earth's axis of rotation into space, points near Polaris, the North Star. That's the bright star that creates the short trail near the center of the concentric arcs. But the historic One-Mile Telescope array also relied on planet Earth's rotation to operate. Exploring the universe at radio wavelengths, it was the first radio telescope to use Earth-rotation aperture synthesis. That technique uses the rotation of the Earth to change the relative orientation of the telescope array and celestial radio sources to create radio maps of the sky at a resolution better than that of the human eye.

    apod.nasa.gov/apod/ap250913.ht

    #space #earth #astrophotography #photography #astroart #science #nature

  36. 2025 September 13

    Star Trails over One-Mile Radio Telescope
    * Image Credit & Copyright: Joao Yordanov Serralheiro
    joaoysphotography.com/about

    Explanation:
    The steerable 60 foot diameter dish antenna of the One-Mile Telescope at Mullard Radio Astronomy Observatory, Cambridge, UK, is pointing skyward in this evocative night-skyscape. To capture the dramatic scene, consecutive 30 second exposures were recorded over a period of 90 minutes. Combined, the exposures reveal a background of gracefully arcing star trails that reflect planet Earth's daily rotation on its axis. The North Celestial Pole, the extension of Earth's axis of rotation into space, points near Polaris, the North Star. That's the bright star that creates the short trail near the center of the concentric arcs. But the historic One-Mile Telescope array also relied on planet Earth's rotation to operate. Exploring the universe at radio wavelengths, it was the first radio telescope to use Earth-rotation aperture synthesis. That technique uses the rotation of the Earth to change the relative orientation of the telescope array and celestial radio sources to create radio maps of the sky at a resolution better than that of the human eye.

    apod.nasa.gov/apod/ap250913.ht

    #space #earth #astrophotography #photography #astroart #science #nature

  37. 2025 September 13

    Star Trails over One-Mile Radio Telescope
    * Image Credit & Copyright: Joao Yordanov Serralheiro
    joaoysphotography.com/about

    Explanation:
    The steerable 60 foot diameter dish antenna of the One-Mile Telescope at Mullard Radio Astronomy Observatory, Cambridge, UK, is pointing skyward in this evocative night-skyscape. To capture the dramatic scene, consecutive 30 second exposures were recorded over a period of 90 minutes. Combined, the exposures reveal a background of gracefully arcing star trails that reflect planet Earth's daily rotation on its axis. The North Celestial Pole, the extension of Earth's axis of rotation into space, points near Polaris, the North Star. That's the bright star that creates the short trail near the center of the concentric arcs. But the historic One-Mile Telescope array also relied on planet Earth's rotation to operate. Exploring the universe at radio wavelengths, it was the first radio telescope to use Earth-rotation aperture synthesis. That technique uses the rotation of the Earth to change the relative orientation of the telescope array and celestial radio sources to create radio maps of the sky at a resolution better than that of the human eye.

    apod.nasa.gov/apod/ap250913.ht

    #space #earth #astrophotography #photography #astroart #science #nature

  38. 2025 September 6

    Sardinia Sunset
    * Image Credit & Copyright: Lorenzo Busilacchi

    Explanation:
    When the sun sets on September 7, the Full Moon will rise. And on that date denizens around much of our fair planet, including parts of Antarctica, Australia, Asia, Europe, and Africa can witness a total lunar eclipse, with the Moon completely immersed in Earth's shadow. As the bright Full Moon first enters Earth's shadow it will darken, finally taking on a reddish hue during the total eclipse phase. In fact, the color of the Moon during a total lunar eclipse is due to reddened light from sunrises and sunsets around planet Earth. The reddened sunlight is scattered by a dense atmosphere into the planet's otherwise dark central shadow. When the sun set on August 22, this telephoto snapshot of red skies, blue sea, and the Mangiabarche Lighthouse was captured from Sant'Antioco, Sardinia, Italy.
    earthsky.org/astronomy-essenti

    apod.nasa.gov/apod/ap250906.ht

    #space_related #astroart #art #astrophotography #photography #science #nature #Space_Culture_Club

  39. 2025 September 6

    Sardinia Sunset
    * Image Credit & Copyright: Lorenzo Busilacchi

    Explanation:
    When the sun sets on September 7, the Full Moon will rise. And on that date denizens around much of our fair planet, including parts of Antarctica, Australia, Asia, Europe, and Africa can witness a total lunar eclipse, with the Moon completely immersed in Earth's shadow. As the bright Full Moon first enters Earth's shadow it will darken, finally taking on a reddish hue during the total eclipse phase. In fact, the color of the Moon during a total lunar eclipse is due to reddened light from sunrises and sunsets around planet Earth. The reddened sunlight is scattered by a dense atmosphere into the planet's otherwise dark central shadow. When the sun set on August 22, this telephoto snapshot of red skies, blue sea, and the Mangiabarche Lighthouse was captured from Sant'Antioco, Sardinia, Italy.
    earthsky.org/astronomy-essenti

    apod.nasa.gov/apod/ap250906.ht

    #space_related #astroart #art #astrophotography #photography #science #nature #Space_Culture_Club

  40. 2025 September 6

    Sardinia Sunset
    * Image Credit & Copyright: Lorenzo Busilacchi

    Explanation:
    When the sun sets on September 7, the Full Moon will rise. And on that date denizens around much of our fair planet, including parts of Antarctica, Australia, Asia, Europe, and Africa can witness a total lunar eclipse, with the Moon completely immersed in Earth's shadow. As the bright Full Moon first enters Earth's shadow it will darken, finally taking on a reddish hue during the total eclipse phase. In fact, the color of the Moon during a total lunar eclipse is due to reddened light from sunrises and sunsets around planet Earth. The reddened sunlight is scattered by a dense atmosphere into the planet's otherwise dark central shadow. When the sun set on August 22, this telephoto snapshot of red skies, blue sea, and the Mangiabarche Lighthouse was captured from Sant'Antioco, Sardinia, Italy.
    earthsky.org/astronomy-essenti

    apod.nasa.gov/apod/ap250906.ht

    #space_related #astroart #art #astrophotography #photography #science #nature #Space_Culture_Club

  41. 2025 September 6

    Sardinia Sunset
    * Image Credit & Copyright: Lorenzo Busilacchi

    Explanation:
    When the sun sets on September 7, the Full Moon will rise. And on that date denizens around much of our fair planet, including parts of Antarctica, Australia, Asia, Europe, and Africa can witness a total lunar eclipse, with the Moon completely immersed in Earth's shadow. As the bright Full Moon first enters Earth's shadow it will darken, finally taking on a reddish hue during the total eclipse phase. In fact, the color of the Moon during a total lunar eclipse is due to reddened light from sunrises and sunsets around planet Earth. The reddened sunlight is scattered by a dense atmosphere into the planet's otherwise dark central shadow. When the sun set on August 22, this telephoto snapshot of red skies, blue sea, and the Mangiabarche Lighthouse was captured from Sant'Antioco, Sardinia, Italy.
    earthsky.org/astronomy-essenti

    apod.nasa.gov/apod/ap250906.ht

    #space_related #astroart #art #astrophotography #photography #science #nature #Space_Culture_Club

  42. 2025 September 6

    Sardinia Sunset
    * Image Credit & Copyright: Lorenzo Busilacchi

    Explanation:
    When the sun sets on September 7, the Full Moon will rise. And on that date denizens around much of our fair planet, including parts of Antarctica, Australia, Asia, Europe, and Africa can witness a total lunar eclipse, with the Moon completely immersed in Earth's shadow. As the bright Full Moon first enters Earth's shadow it will darken, finally taking on a reddish hue during the total eclipse phase. In fact, the color of the Moon during a total lunar eclipse is due to reddened light from sunrises and sunsets around planet Earth. The reddened sunlight is scattered by a dense atmosphere into the planet's otherwise dark central shadow. When the sun set on August 22, this telephoto snapshot of red skies, blue sea, and the Mangiabarche Lighthouse was captured from Sant'Antioco, Sardinia, Italy.
    earthsky.org/astronomy-essenti

    apod.nasa.gov/apod/ap250906.ht

    #space_related #astroart #art #astrophotography #photography #science #nature #Space_Culture_Club

  43. 2013 May 13

    Partial Solar Eclipse with Airplane
    * Image Credit & Copyright: Phillip Calais

    Explanation:
    It was just eight minutes after sunrise, last week, and already there were four things in front of the Sun. The largest and most notable was Earth's Moon, obscuring a big chunk of the Sun's lower limb as it moved across the solar disk, as viewed from Fremantle, Australia. This was expected as the image was taken during a partial solar eclipse -- an eclipse that left sunlight streaming around all sides of the Moon from some locations. Next, a band of clouds divided the Sun horizontally while showing interesting internal structure vertically. The third intervening body might be considered to be the Earth's atmosphere, as it dimmed the Sun from its higher altitude brightness while density fluctuations caused the Sun's edges to appear to shimmer. Although closest to the photographer, the least expected solar occulter was an airplane. Quite possibly, passengers on both sides of that airplane were contemplating the unusual view only visible out the eastern-facing windows.

    apod.nasa.gov/apod/ap130513.ht

    #space_related #astroart #art #astrophotography #photography #science #nature #Space_Culture_Club

  44. 2013 May 13

    Partial Solar Eclipse with Airplane
    * Image Credit & Copyright: Phillip Calais

    Explanation:
    It was just eight minutes after sunrise, last week, and already there were four things in front of the Sun. The largest and most notable was Earth's Moon, obscuring a big chunk of the Sun's lower limb as it moved across the solar disk, as viewed from Fremantle, Australia. This was expected as the image was taken during a partial solar eclipse -- an eclipse that left sunlight streaming around all sides of the Moon from some locations. Next, a band of clouds divided the Sun horizontally while showing interesting internal structure vertically. The third intervening body might be considered to be the Earth's atmosphere, as it dimmed the Sun from its higher altitude brightness while density fluctuations caused the Sun's edges to appear to shimmer. Although closest to the photographer, the least expected solar occulter was an airplane. Quite possibly, passengers on both sides of that airplane were contemplating the unusual view only visible out the eastern-facing windows.

    apod.nasa.gov/apod/ap130513.ht

    #space_related #astroart #art #astrophotography #photography #science #nature #Space_Culture_Club

  45. 2013 May 13

    Partial Solar Eclipse with Airplane
    * Image Credit & Copyright: Phillip Calais

    Explanation:
    It was just eight minutes after sunrise, last week, and already there were four things in front of the Sun. The largest and most notable was Earth's Moon, obscuring a big chunk of the Sun's lower limb as it moved across the solar disk, as viewed from Fremantle, Australia. This was expected as the image was taken during a partial solar eclipse -- an eclipse that left sunlight streaming around all sides of the Moon from some locations. Next, a band of clouds divided the Sun horizontally while showing interesting internal structure vertically. The third intervening body might be considered to be the Earth's atmosphere, as it dimmed the Sun from its higher altitude brightness while density fluctuations caused the Sun's edges to appear to shimmer. Although closest to the photographer, the least expected solar occulter was an airplane. Quite possibly, passengers on both sides of that airplane were contemplating the unusual view only visible out the eastern-facing windows.

    apod.nasa.gov/apod/ap130513.ht

    #space_related #astroart #art #astrophotography #photography #science #nature #Space_Culture_Club

  46. 2013 May 13

    Partial Solar Eclipse with Airplane
    * Image Credit & Copyright: Phillip Calais

    Explanation:
    It was just eight minutes after sunrise, last week, and already there were four things in front of the Sun. The largest and most notable was Earth's Moon, obscuring a big chunk of the Sun's lower limb as it moved across the solar disk, as viewed from Fremantle, Australia. This was expected as the image was taken during a partial solar eclipse -- an eclipse that left sunlight streaming around all sides of the Moon from some locations. Next, a band of clouds divided the Sun horizontally while showing interesting internal structure vertically. The third intervening body might be considered to be the Earth's atmosphere, as it dimmed the Sun from its higher altitude brightness while density fluctuations caused the Sun's edges to appear to shimmer. Although closest to the photographer, the least expected solar occulter was an airplane. Quite possibly, passengers on both sides of that airplane were contemplating the unusual view only visible out the eastern-facing windows.

    apod.nasa.gov/apod/ap130513.ht

    #space_related #astroart #art #astrophotography #photography #science #nature #Space_Culture_Club