dx.doi.org/10.1038/s41586-024-07879-y

Preview meta tags from the dx.doi.org website.

Linked Hostnames

35

Thumbnail

Search Engine Appearance

Google

https://dx.doi.org/10.1038/s41586-024-07879-y

Black hole jets on the scale of the cosmic web - Nature

When sustained for megayears (refs. 1,2), high-power jets from supermassive black holes (SMBHs) become the largest galaxy-made structures in the Universe3. By pumping electrons, atomic nuclei and magnetic fields into the intergalactic medium (IGM), these energetic flows affect the distribution of matter and magnetism in the cosmic web4–6 and could have a sweeping cosmological influence if they reached far at early epochs. For the past 50 years, the known size range of black hole jet pairs ended at 4.6–5.0 Mpc (refs. 7–9), or 20–30% of a cosmic void radius in the Local Universe10. An observational lack of longer jets, as well as theoretical results11, thus suggested a growth limit at about 5 Mpc (ref. 12). Here we report observations of a radio structure spanning about 7 Mpc, or roughly 66% of a coeval cosmic void radius, apparently generated by a black hole between $${4.4}_{-0.7}^{+0.2}$$ and 6.3 Gyr after the Big Bang. The structure consists of a northern lobe, a northern jet, a core, a southern jet with an inner hotspot and a southern outer hotspot with a backflow. This system demonstrates that jets can avoid destruction by magnetohydrodynamical instabilities over cosmological distances, even at epochs when the Universe was 7 to $$1{5}_{-2}^{+6}$$ times denser than it is today. How jets can retain such long-lived coherence is unknown at present. Radio images reveal distant black hole jets of cosmological length, suggesting that the environmental impact of supermassive black holes extends further in space and time than previously thought.



Bing

Black hole jets on the scale of the cosmic web - Nature

https://dx.doi.org/10.1038/s41586-024-07879-y

When sustained for megayears (refs. 1,2), high-power jets from supermassive black holes (SMBHs) become the largest galaxy-made structures in the Universe3. By pumping electrons, atomic nuclei and magnetic fields into the intergalactic medium (IGM), these energetic flows affect the distribution of matter and magnetism in the cosmic web4–6 and could have a sweeping cosmological influence if they reached far at early epochs. For the past 50 years, the known size range of black hole jet pairs ended at 4.6–5.0 Mpc (refs. 7–9), or 20–30% of a cosmic void radius in the Local Universe10. An observational lack of longer jets, as well as theoretical results11, thus suggested a growth limit at about 5 Mpc (ref. 12). Here we report observations of a radio structure spanning about 7 Mpc, or roughly 66% of a coeval cosmic void radius, apparently generated by a black hole between $${4.4}_{-0.7}^{+0.2}$$ and 6.3 Gyr after the Big Bang. The structure consists of a northern lobe, a northern jet, a core, a southern jet with an inner hotspot and a southern outer hotspot with a backflow. This system demonstrates that jets can avoid destruction by magnetohydrodynamical instabilities over cosmological distances, even at epochs when the Universe was 7 to $$1{5}_{-2}^{+6}$$ times denser than it is today. How jets can retain such long-lived coherence is unknown at present. Radio images reveal distant black hole jets of cosmological length, suggesting that the environmental impact of supermassive black holes extends further in space and time than previously thought.



DuckDuckGo

https://dx.doi.org/10.1038/s41586-024-07879-y

Black hole jets on the scale of the cosmic web - Nature

When sustained for megayears (refs. 1,2), high-power jets from supermassive black holes (SMBHs) become the largest galaxy-made structures in the Universe3. By pumping electrons, atomic nuclei and magnetic fields into the intergalactic medium (IGM), these energetic flows affect the distribution of matter and magnetism in the cosmic web4–6 and could have a sweeping cosmological influence if they reached far at early epochs. For the past 50 years, the known size range of black hole jet pairs ended at 4.6–5.0 Mpc (refs. 7–9), or 20–30% of a cosmic void radius in the Local Universe10. An observational lack of longer jets, as well as theoretical results11, thus suggested a growth limit at about 5 Mpc (ref. 12). Here we report observations of a radio structure spanning about 7 Mpc, or roughly 66% of a coeval cosmic void radius, apparently generated by a black hole between $${4.4}_{-0.7}^{+0.2}$$ and 6.3 Gyr after the Big Bang. The structure consists of a northern lobe, a northern jet, a core, a southern jet with an inner hotspot and a southern outer hotspot with a backflow. This system demonstrates that jets can avoid destruction by magnetohydrodynamical instabilities over cosmological distances, even at epochs when the Universe was 7 to $$1{5}_{-2}^{+6}$$ times denser than it is today. How jets can retain such long-lived coherence is unknown at present. Radio images reveal distant black hole jets of cosmological length, suggesting that the environmental impact of supermassive black holes extends further in space and time than previously thought.

  • General Meta Tags

    179
    • title
      Black hole jets on the scale of the cosmic web | Nature
    • title
      Close banner
    • title
      Close banner
    • X-UA-Compatible
      IE=edge
    • applicable-device
      pc,mobile
  • Open Graph Meta Tags

    6
    • og:url
      https://www.nature.com/articles/s41586-024-07879-y
    • og:type
      article
    • og:site_name
      Nature
    • og:title
      Black hole jets on the scale of the cosmic web - Nature
    • og:description
      Radio images reveal distant black hole jets of cosmological length, suggesting that the environmental impact of supermassive black holes extends further in space and time than previously thought.
  • Twitter Meta Tags

    6
    • twitter:site
      @nature
    • twitter:card
      summary_large_image
    • twitter:image:alt
      Content cover image
    • twitter:title
      Black hole jets on the scale of the cosmic web
    • twitter:description
      Nature - Radio images reveal distant black hole jets of cosmological length, suggesting that the environmental impact of supermassive black holes extends further in space and time than previously...
  • Item Prop Meta Tags

    4
    • position
      1
    • position
      2
    • position
      3
    • publisher
      Springer Nature
  • Link Tags

    15
    • alternate
      https://www.nature.com/nature.rss
    • apple-touch-icon
      /static/images/favicons/nature/apple-touch-icon-f39cb19454.png
    • canonical
      https://www.nature.com/articles/s41586-024-07879-y
    • icon
      /static/images/favicons/nature/favicon-48x48-b52890008c.png
    • icon
      /static/images/favicons/nature/favicon-32x32-3fe59ece92.png

Emails

1

Links

366