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#ngc6072 — Public Fediverse posts

Live and recent posts from across the Fediverse tagged #ngc6072, aggregated by home.social.

  1. Finding #cyanobutadiyne in NGC 6072 is a big deal because it proves that planetary nebulae aren't just "graveyards" of dead stars; they are actually cosmic recycling plants.

    These complex organic molecules survive the death of the star and are blasted out into the interstellar medium. Eventually, they will drift into giant molecular nurseries (like Sgr B2 or Pismis 24) to be incorporated into the next generation of space dust, proto-planetary disks, and ultimately, new planets.

    #NGC6072

  2. Finding #cyanobutadiyne in NGC 6072 is a big deal because it proves that planetary nebulae aren't just "graveyards" of dead stars; they are actually cosmic recycling plants.

    These complex organic molecules survive the death of the star and are blasted out into the interstellar medium. Eventually, they will drift into giant molecular nurseries (like Sgr B2 or Pismis 24) to be incorporated into the next generation of space dust, proto-planetary disks, and ultimately, new planets.

    #NGC6072

  3. Finding #cyanobutadiyne in NGC 6072 is a big deal because it proves that planetary nebulae aren't just "graveyards" of dead stars; they are actually cosmic recycling plants.

    These complex organic molecules survive the death of the star and are blasted out into the interstellar medium. Eventually, they will drift into giant molecular nurseries (like Sgr B2 or Pismis 24) to be incorporated into the next generation of space dust, proto-planetary disks, and ultimately, new planets.

    #NGC6072

  4. Finding #cyanobutadiyne in NGC 6072 is a big deal because it proves that planetary nebulae aren't just "graveyards" of dead stars; they are actually cosmic recycling plants.

    These complex organic molecules survive the death of the star and are blasted out into the interstellar medium. Eventually, they will drift into giant molecular nurseries (like Sgr B2 or Pismis 24) to be incorporated into the next generation of space dust, proto-planetary disks, and ultimately, new planets.

    #NGC6072

  5. Finding #cyanobutadiyne in NGC 6072 is a big deal because it proves that planetary nebulae aren't just "graveyards" of dead stars; they are actually cosmic recycling plants.

    These complex organic molecules survive the death of the star and are blasted out into the interstellar medium. Eventually, they will drift into giant molecular nurseries (like Sgr B2 or Pismis 24) to be incorporated into the next generation of space dust, proto-planetary disks, and ultimately, new planets.

    #NGC6072

  6. A new look at NGC 6072 from the James Webb Telescope reveals an unusual, asymmetrical scene, potentially caused by a binary star system - two stars orbiting one another. Specifically, a companion star is interacting with an aging star that has already begun to shed some of its outer layers of gas and dust. A planetary nebula is made up of gas and dust ejected from a star, like our Sun, late in its life.

    #astrophotography
    #NGC6072
    #Webb
    #JWST
    #AltText

  7. A new look at NGC 6072 from the James Webb Telescope reveals an unusual, asymmetrical scene, potentially caused by a binary star system - two stars orbiting one another. Specifically, a companion star is interacting with an aging star that has already begun to shed some of its outer layers of gas and dust. A planetary nebula is made up of gas and dust ejected from a star, like our Sun, late in its life.

    #astrophotography
    #NGC6072
    #Webb
    #JWST
    #AltText

  8. A new look at NGC 6072 from the James Webb Telescope reveals an unusual, asymmetrical scene, potentially caused by a binary star system - two stars orbiting one another. Specifically, a companion star is interacting with an aging star that has already begun to shed some of its outer layers of gas and dust. A planetary nebula is made up of gas and dust ejected from a star, like our Sun, late in its life.

    #astrophotography
    #NGC6072
    #Webb
    #JWST
    #AltText

  9. A new look at NGC 6072 from the James Webb Telescope reveals an unusual, asymmetrical scene, potentially caused by a binary star system - two stars orbiting one another. Specifically, a companion star is interacting with an aging star that has already begun to shed some of its outer layers of gas and dust. A planetary nebula is made up of gas and dust ejected from a star, like our Sun, late in its life.

    #astrophotography
    #NGC6072
    #Webb
    #JWST
    #AltText

  10. A new look at NGC 6072 from the James Webb Telescope reveals an unusual, asymmetrical scene, potentially caused by a binary star system - two stars orbiting one another. Specifically, a companion star is interacting with an aging star that has already begun to shed some of its outer layers of gas and dust. A planetary nebula is made up of gas and dust ejected from a star, like our Sun, late in its life.

    #astrophotography
    #NGC6072
    #Webb
    #JWST
    #AltText

  11. A dying star carved this tangled cloud of gas and dust.

    NGC 6072, captured in infrared by the Webb Space Telescope, shows overlapping disks and outflows that hint at a chaotic past—possibly shaped by a multi-star system.

    📅 Aug 5, 2025
    📷 NASA / ESA / CSA / STScI / JWST
    🔭 #NGC6072 #PlanetaryNebula #JWST #InfraredAstronomy #Astrophotography #StellarSnap

  12. Twee sterren zorgen voor de onregelmatige vorm van NGC 6072

    Met behulp van twee instrumenten aan boord van de Webb Space Telescope hebben astronomen nieuwe opnames gemaakt van de planetaire nevel NGC 6072.

    Deze Webb/NIRCam-opname toont NGC 6072, een planetaire nevel, ongeveer 4048 lichtjaar ver weg in het

    kuuke.nl/twee-sterren-zorgen-v

    #dubbelster #infrarood #NGC6072 #PlanetaireNevel #schorpioen #scorpius #WebbSpaceTelescope