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#neutronstar — Public Fediverse posts

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

  1. Empty Space May Not Be Empty After All: Magnetar Reveals a Bizarre Quantum Effect

    A Swinburne astronomer may have just confirmed one of the quirkiest aspects of quantum mechanics: that seemingly empty…
    #NewsBeep #News #Science #GB #magnetar #neutronstar #QuantumPhysics #SwinburneUniversityofTechnology #UK #UnitedKingdom
    newsbeep.com/uk/738429/

  2. Empty Space May Not Be Empty After All: Magnetar Reveals a Bizarre Quantum Effect

    A Swinburne astronomer may have just confirmed one of the quirkiest aspects of quantum mechanics: that seemingly empty…
    #NewsBeep #News #Science #AU #Australia #magnetar #neutronstar #QuantumPhysics #SwinburneUniversityofTechnology
    newsbeep.com/au/854304/

  3. Empty Space May Not Be Empty After All: Magnetar Reveals a Bizarre Quantum Effect

    A Swinburne astronomer may have just confirmed one of the quirkiest aspects of quantum mechanics: that seemingly empty…
    #NewsBeep #News #Science #AU #Australia #magnetar #neutronstar #QuantumPhysics #SwinburneUniversityofTechnology
    newsbeep.com/au/854304/

  4. Understanding mysterious magnetars 🧲 and radio bursts 🌟 with gravitational waves

    A flash of radio waves lasting a few thousandths of a second, as bright as millions or billions of stars, and it’s all over: even almost 20 years after their discovery, fast radio bursts remain one of the most mysterious phenomena in our Universe. Scientists believe that neutron stars – very small and extremely dense stellar remnants with huge magnetic fields – emit these bursts.

    An international team has now used gravitational waves to study a nearby neutron star that has emitted several radio bursts. The researchers analyzed data from the German-British GEO600 detector to learn more about the origin of these events. Their results contribute to a better understanding of these extreme events and their theoretical description.

    ℹ️ geo600.org/219378/understandin

    📄 iopscience.iop.org/article/10. [Open Access]

    #Magnetar #FRB #FastRadioBurst #GravitationalWaves #GEO600 #NeutronStar #SGR1935+2154

  5. Understanding mysterious magnetars 🧲 and radio bursts 🌟 with gravitational waves

    A flash of radio waves lasting a few thousandths of a second, as bright as millions or billions of stars, and it’s all over: even almost 20 years after their discovery, fast radio bursts remain one of the most mysterious phenomena in our Universe. Scientists believe that neutron stars – very small and extremely dense stellar remnants with huge magnetic fields – emit these bursts.

    An international team has now used gravitational waves to study a nearby neutron star that has emitted several radio bursts. The researchers analyzed data from the German-British GEO600 detector to learn more about the origin of these events. Their results contribute to a better understanding of these extreme events and their theoretical description.

    ℹ️ geo600.org/219378/understandin

    📄 iopscience.iop.org/article/10. [Open Access]

    #Magnetar #FRB #FastRadioBurst #GravitationalWaves #GEO600 #NeutronStar #SGR1935+2154

  6. Understanding mysterious magnetars 🧲 and radio bursts 🌟 with gravitational waves

    A flash of radio waves lasting a few thousandths of a second, as bright as millions or billions of stars, and it’s all over: even almost 20 years after their discovery, fast radio bursts remain one of the most mysterious phenomena in our Universe. Scientists believe that neutron stars – very small and extremely dense stellar remnants with huge magnetic fields – emit these bursts.

    An international team has now used gravitational waves to study a nearby neutron star that has emitted several radio bursts. The researchers analyzed data from the German-British GEO600 detector to learn more about the origin of these events. Their results contribute to a better understanding of these extreme events and their theoretical description.

    ℹ️ geo600.org/219378/understandin

    📄 iopscience.iop.org/article/10. [Open Access]

    #Magnetar #FRB #FastRadioBurst #GravitationalWaves #GEO600 #NeutronStar #SGR1935+2154

  7. Understanding mysterious magnetars 🧲 and radio bursts 🌟 with gravitational waves

    A flash of radio waves lasting a few thousandths of a second, as bright as millions or billions of stars, and it’s all over: even almost 20 years after their discovery, fast radio bursts remain one of the most mysterious phenomena in our Universe. Scientists believe that neutron stars – very small and extremely dense stellar remnants with huge magnetic fields – emit these bursts.

    An international team has now used gravitational waves to study a nearby neutron star that has emitted several radio bursts. The researchers analyzed data from the German-British GEO600 detector to learn more about the origin of these events. Their results contribute to a better understanding of these extreme events and their theoretical description.

    ℹ️ geo600.org/219378/understandin

    📄 iopscience.iop.org/article/10. [Open Access]

    #Magnetar #FRB #FastRadioBurst #GravitationalWaves #GEO600 #NeutronStar #SGR1935+2154

  8. Understanding mysterious magnetars 🧲 and radio bursts 🌟 with gravitational waves

    A flash of radio waves lasting a few thousandths of a second, as bright as millions or billions of stars, and it’s all over: even almost 20 years after their discovery, fast radio bursts remain one of the most mysterious phenomena in our Universe. Scientists believe that neutron stars – very small and extremely dense stellar remnants with huge magnetic fields – emit these bursts.

    An international team has now used gravitational waves to study a nearby neutron star that has emitted several radio bursts. The researchers analyzed data from the German-British GEO600 detector to learn more about the origin of these events. Their results contribute to a better understanding of these extreme events and their theoretical description.

    ℹ️ geo600.org/219378/understandin

    📄 iopscience.iop.org/article/10. [Open Access]

    #Magnetar #FRB #FastRadioBurst #GravitationalWaves #GEO600 #NeutronStar #SGR1935+2154

  9. Understanding mysterious magnetars 🧲 and radio bursts 🌟 with gravitational waves

    A flash of radio waves lasting a few thousandths of a second, as bright as millions or billions of stars, and it’s all over: even almost 20 years after their discovery, fast radio bursts remain one of the most mysterious phenomena in our Universe. Scientists believe that neutron stars – very small and extremely dense stellar remnants with huge magnetic fields – emit these bursts.

    An international team has now used gravitational waves to study a nearby neutron star that has emitted several radio bursts. The researchers analyzed data from the German-British GEO600 detector to learn more about the origin of these events. Their results contribute to a better understanding of these extreme events and their theoretical description.

    ℹ️ geo600.org/219378/understandin

    📄 iopscience.iop.org/article/10. [Open Access]

    #Magnetar #FRB #FastRadioBurst #GravitationalWaves #GEO600 #NeutronStar #SGR1935+2154

  10. Understanding mysterious magnetars 🧲 and radio bursts 🌟 with gravitational waves

    A flash of radio waves lasting a few thousandths of a second, as bright as millions or billions of stars, and it’s all over: even almost 20 years after their discovery, fast radio bursts remain one of the most mysterious phenomena in our Universe. Scientists believe that neutron stars – very small and extremely dense stellar remnants with huge magnetic fields – emit these bursts.

    An international team has now used gravitational waves to study a nearby neutron star that has emitted several radio bursts. The researchers analyzed data from the German-British GEO600 detector to learn more about the origin of these events. Their results contribute to a better understanding of these extreme events and their theoretical description.

    ℹ️ geo600.org/219378/understandin

    📄 iopscience.iop.org/article/10. [Open Access]

    #Magnetar #FRB #FastRadioBurst #GravitationalWaves #GEO600 #NeutronStar #SGR1935+2154

  11. Understanding mysterious magnetars 🧲 and radio bursts 🌟 with gravitational waves

    A flash of radio waves lasting a few thousandths of a second, as bright as millions or billions of stars, and it’s all over: even almost 20 years after their discovery, fast radio bursts remain one of the most mysterious phenomena in our Universe. Scientists believe that neutron stars – very small and extremely dense stellar remnants with huge magnetic fields – emit these bursts.

    An international team has now used gravitational waves to study a nearby neutron star that has emitted several radio bursts. The researchers analyzed data from the German-British GEO600 detector to learn more about the origin of these events. Their results contribute to a better understanding of these extreme events and their theoretical description.

    ℹ️ geo600.org/219378/understandin

    📄 iopscience.iop.org/article/10. [Open Access]

    #Magnetar #FRB #FastRadioBurst #GravitationalWaves #GEO600 #NeutronStar #SGR1935+2154

  12. #astronomy #FastRadioBurst #magnetar #NeutronStar #FRB20221022A

    An article published in the journal "Nature" reports the identification of the origin of the fast radio burst cataloged as FRB 20221022A linking it to a magnetar-class neutron star, probably emerging from its magnetosphere. A team of researchers used observations conducted with the CHIME radio telescope to identify the origin of this fast radio burst by exploiting the phenomenon of scintillation.

    english.tachyonbeam.com/2025/0

  13. #astronomy #FastRadioBurst #magnetar #NeutronStar #FRB20221022A

    An article published in the journal "Nature" reports the identification of the origin of the fast radio burst cataloged as FRB 20221022A linking it to a magnetar-class neutron star, probably emerging from its magnetosphere. A team of researchers used observations conducted with the CHIME radio telescope to identify the origin of this fast radio burst by exploiting the phenomenon of scintillation.

    english.tachyonbeam.com/2025/0

  14. #astronomy #FastRadioBurst #magnetar #NeutronStar #FRB20221022A

    An article published in the journal "Nature" reports the identification of the origin of the fast radio burst cataloged as FRB 20221022A linking it to a magnetar-class neutron star, probably emerging from its magnetosphere. A team of researchers used observations conducted with the CHIME radio telescope to identify the origin of this fast radio burst by exploiting the phenomenon of scintillation.

    english.tachyonbeam.com/2025/0

  15. #astronomy #FastRadioBurst #magnetar #NeutronStar #FRB20221022A

    An article published in the journal "Nature" reports the identification of the origin of the fast radio burst cataloged as FRB 20221022A linking it to a magnetar-class neutron star, probably emerging from its magnetosphere. A team of researchers used observations conducted with the CHIME radio telescope to identify the origin of this fast radio burst by exploiting the phenomenon of scintillation.

    english.tachyonbeam.com/2025/0

  16. #astronomy #FastRadioBurst #magnetar #NeutronStar #FRB20221022A

    An article published in the journal "Nature" reports the identification of the origin of the fast radio burst cataloged as FRB 20221022A linking it to a magnetar-class neutron star, probably emerging from its magnetosphere. A team of researchers used observations conducted with the CHIME radio telescope to identify the origin of this fast radio burst by exploiting the phenomenon of scintillation.

    english.tachyonbeam.com/2025/0