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#superconductors — Public Fediverse posts

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

  1. Scientists unlock faster way to find thousands of new superconductors

    Researchers have discovered two new superconductors using a machine learning-based screening method, demonstrating a faster way to identify…
    #NewsBeep #News #Physics #Aaltouniversity #kagomelattice #Machinelearning #PhysicalReviewResearch #quantummaterials #RiceUniversity #room-temperaturesuperconductor #Science #superconductors #UK #UnitedKingdom
    newsbeep.com/uk/665753/

  2. Scientists unlock faster way to find thousands of new superconductors

    Researchers have discovered two new superconductors using a machine learning-based screening method, demonstrating a faster way to identify…
    #NewsBeep #News #US #USA #UnitedStates #UnitedStatesOfAmerica #Physics #Aaltouniversity #kagomelattice #machinelearning #PhysicalReviewResearch #quantummaterials #RiceUniversity #room-temperaturesuperconductor #Science #superconductors
    newsbeep.com/us/734432/

  3. Scientists unlock faster way to find thousands of new superconductors

    Researchers have discovered two new superconductors using a machine learning-based screening method, demonstrating a faster way to identify…
    #NewsBeep #News #US #USA #UnitedStates #UnitedStatesOfAmerica #Physics #Aaltouniversity #kagomelattice #machinelearning #PhysicalReviewResearch #quantummaterials #RiceUniversity #room-temperaturesuperconductor #Science #superconductors
    newsbeep.com/us/734432/

  4. My first thought, when considering consequences of adding room-temperature #superconductors to an ongoing #scifi / #dieselpunk universe, is "it wouldn't even be an hour before some human starts trying to weaponise them".

    Second thought: an hour feels optimistic.

  5. My first thought, when considering consequences of adding room-temperature #superconductors to an ongoing #scifi / #dieselpunk universe, is "it wouldn't even be an hour before some human starts trying to weaponise them".

    Second thought: an hour feels optimistic.

  6. Magnetic “super lenses” for research under extreme pressure: A team including scientists from #HZDR succeeded in analyzing lanthanum #superhydrides, a class of promising high-temperature #superconductors, using #NMR spectroscopy.

    Read more:
    ▶️ www.hzdr.de/presse/lenz_lens

    Image: B. Schröder/HZDR

  7. Magnetic “super lenses” for research under extreme pressure: A team including scientists from #HZDR succeeded in analyzing lanthanum #superhydrides, a class of promising high-temperature #superconductors, using #NMR spectroscopy.

    Read more:
    ▶️ www.hzdr.de/presse/lenz_lens

    Image: B. Schröder/HZDR

  8. Magnetic “super lenses” for research under extreme pressure: A team including scientists from #HZDR succeeded in analyzing lanthanum #superhydrides, a class of promising high-temperature #superconductors, using #NMR spectroscopy.

    Read more:
    ▶️ www.hzdr.de/presse/lenz_lens

    Image: B. Schröder/HZDR

  9. Magnetic “super lenses” for research under extreme pressure: A team including scientists from #HZDR succeeded in analyzing lanthanum #superhydrides, a class of promising high-temperature #superconductors, using #NMR spectroscopy.

    Read more:
    ▶️ www.hzdr.de/presse/lenz_lens

    Image: B. Schröder/HZDR

  10. Magnetic “super lenses” for research under extreme pressure: A team including scientists from #HZDR succeeded in analyzing lanthanum #superhydrides, a class of promising high-temperature #superconductors, using #NMR spectroscopy.

    Read more:
    ▶️ www.hzdr.de/presse/lenz_lens

    Image: B. Schröder/HZDR

  11. US scientists unlock secrets of high-temperature superconductors

    Researchers in the United States have unlocked secrets of high-temperature superconductors. Researchers at the U.S. Department of Energy’s…
    #NewsBeep #News #Physics #AU #Australia #Science #secretsofsuperconductors #superconductors #USlab #USscientists
    newsbeep.com/au/588785/

  12. US scientists unlock secrets of high-temperature superconductors

    Researchers in the United States have unlocked secrets of high-temperature superconductors. Researchers at the U.S. Department of Energy’s…
    #NewsBeep #News #Physics #AU #Australia #Science #secretsofsuperconductors #superconductors #USlab #USscientists
    newsbeep.com/au/588785/

  13. US scientists unlock secrets of high-temperature superconductors

    Researchers in the United States have unlocked secrets of high-temperature superconductors. Researchers at the U.S. Department of Energy’s…
    #NewsBeep #News #Physics #Science #secretsofsuperconductors #superconductors #UK #UnitedKingdom #USlab #USscientists
    newsbeep.com/uk/515534/

  14. US scientists unlock secrets of high-temperature superconductors

    Researchers in the United States have unlocked secrets of high-temperature superconductors. Researchers at the U.S. Department of Energy’s…
    #NewsBeep #News #US #USA #UnitedStates #UnitedStatesOfAmerica #Physics #Science #secretsofsuperconductors #superconductors #USlab #USscientists
    newsbeep.com/us/567546/

  15. US scientists unlock secrets of high-temperature superconductors

    Researchers in the United States have unlocked secrets of high-temperature superconductors. Researchers at the U.S. Department of Energy’s…
    #NewsBeep #News #US #USA #UnitedStates #UnitedStatesOfAmerica #Physics #Science #secretsofsuperconductors #superconductors #USlab #USscientists
    newsbeep.com/us/567546/

  16. Researchers at Chalmers University of Technology discovered a simple nanoscale surface tweak that enhances superconductors’ ability to withstand stronger magnetic fields and higher temperatures without losing their zero-resistance properties.

    Read more: thedebrief.org/innovative-new-

    @goodnews

    #Superconductors #FutureTech #EnergyInnovation #GoodNews

  17. Researchers at Chalmers University of Technology discovered a simple nanoscale surface tweak that enhances superconductors’ ability to withstand stronger magnetic fields and higher temperatures without losing their zero-resistance properties.

    Read more: thedebrief.org/innovative-new-

    @goodnews

    #Superconductors #FutureTech #EnergyInnovation #GoodNews

  18. Researchers at Chalmers University of Technology discovered a simple nanoscale surface tweak that enhances superconductors’ ability to withstand stronger magnetic fields and higher temperatures without losing their zero-resistance properties.

    Read more: thedebrief.org/innovative-new-

    @goodnews

    #Superconductors #FutureTech #EnergyInnovation #GoodNews

  19. Researchers at Chalmers University of Technology discovered a simple nanoscale surface tweak that enhances superconductors’ ability to withstand stronger magnetic fields and higher temperatures without losing their zero-resistance properties.

    Read more: thedebrief.org/innovative-new-

    @goodnews

    #Superconductors #FutureTech #EnergyInnovation #GoodNews

  20. There isn’t enough #power in the grid to supply the demand for data centers. That’s why #Microsoft is turning to high-temperature #superconductors as a potential replacement for copper wiring to improve energy efficiency. spectrum.ieee.org/ai-data-cent...

  21. There isn’t enough #power in the grid to supply the demand for data centers. That’s why #Microsoft is turning to high-temperature #superconductors as a potential replacement for copper wiring to improve energy efficiency. spectrum.ieee.org/ai-data-cent...

  22. The #paperOfTheDay for my #dailyPaperChallenge is "on the theory of superconductivity" from 1950. At that time, it was not understood which physical mechanism causes superconductivity, so Ginzburg and Landau constructed a phenomenological theory: There must be some sort of superconducting charge carriers, therefore, they introduced a "density field" for those. From experimental findings, one has that it vanishes when the material becomes too hot, it is negatively affected by magnetic fields, and it can only support a finite amount of current. Using this as input, one can make an ansatz for the laws governing the charge density field, and this produces meaningful predictions for the behaviour of #superconductors. Nowadays, the BCS theory gives a more systematic description of (certain) superconductors, but Ginzburg-Landau theory has found many applications in other fields apart from superconductivity because the construction works whenever one does not know the precise laws governing microscopic constituents, but one has information about the observed large-scale properties.
    sciencedirect.com/science/chap

  23. The #paperOfTheDay for my #dailyPaperChallenge is "on the theory of superconductivity" from 1950. At that time, it was not understood which physical mechanism causes superconductivity, so Ginzburg and Landau constructed a phenomenological theory: There must be some sort of superconducting charge carriers, therefore, they introduced a "density field" for those. From experimental findings, one has that it vanishes when the material becomes too hot, it is negatively affected by magnetic fields, and it can only support a finite amount of current. Using this as input, one can make an ansatz for the laws governing the charge density field, and this produces meaningful predictions for the behaviour of #superconductors. Nowadays, the BCS theory gives a more systematic description of (certain) superconductors, but Ginzburg-Landau theory has found many applications in other fields apart from superconductivity because the construction works whenever one does not know the precise laws governing microscopic constituents, but one has information about the observed large-scale properties.
    sciencedirect.com/science/chap

  24. The #paperOfTheDay for my #dailyPaperChallenge is "on the theory of superconductivity" from 1950. At that time, it was not understood which physical mechanism causes superconductivity, so Ginzburg and Landau constructed a phenomenological theory: There must be some sort of superconducting charge carriers, therefore, they introduced a "density field" for those. From experimental findings, one has that it vanishes when the material becomes too hot, it is negatively affected by magnetic fields, and it can only support a finite amount of current. Using this as input, one can make an ansatz for the laws governing the charge density field, and this produces meaningful predictions for the behaviour of #superconductors. Nowadays, the BCS theory gives a more systematic description of (certain) superconductors, but Ginzburg-Landau theory has found many applications in other fields apart from superconductivity because the construction works whenever one does not know the precise laws governing microscopic constituents, but one has information about the observed large-scale properties.
    sciencedirect.com/science/chap

  25. The #paperOfTheDay for my #dailyPaperChallenge is "on the theory of superconductivity" from 1950. At that time, it was not understood which physical mechanism causes superconductivity, so Ginzburg and Landau constructed a phenomenological theory: There must be some sort of superconducting charge carriers, therefore, they introduced a "density field" for those. From experimental findings, one has that it vanishes when the material becomes too hot, it is negatively affected by magnetic fields, and it can only support a finite amount of current. Using this as input, one can make an ansatz for the laws governing the charge density field, and this produces meaningful predictions for the behaviour of #superconductors. Nowadays, the BCS theory gives a more systematic description of (certain) superconductors, but Ginzburg-Landau theory has found many applications in other fields apart from superconductivity because the construction works whenever one does not know the precise laws governing microscopic constituents, but one has information about the observed large-scale properties.
    sciencedirect.com/science/chap

  26. The #paperOfTheDay for my #dailyPaperChallenge is "on the theory of superconductivity" from 1950. At that time, it was not understood which physical mechanism causes superconductivity, so Ginzburg and Landau constructed a phenomenological theory: There must be some sort of superconducting charge carriers, therefore, they introduced a "density field" for those. From experimental findings, one has that it vanishes when the material becomes too hot, it is negatively affected by magnetic fields, and it can only support a finite amount of current. Using this as input, one can make an ansatz for the laws governing the charge density field, and this produces meaningful predictions for the behaviour of #superconductors. Nowadays, the BCS theory gives a more systematic description of (certain) superconductors, but Ginzburg-Landau theory has found many applications in other fields apart from superconductivity because the construction works whenever one does not know the precise laws governing microscopic constituents, but one has information about the observed large-scale properties.
    sciencedirect.com/science/chap

  27. DeepMind has launched the UK’s first fully automated lab, blending AI, robotics and its Gemini models to accelerate superconductors research. The new facility uses a Model Context Protocol to streamline experiments, promising faster breakthroughs in quantum materials. Curious how AI is reshaping labs? Dive into the details. #DeepMind #AI #Robotics #Superconductors

    🔗 aidailypost.com/news/deepmind-

  28. DeepMind has launched the UK’s first fully automated lab, blending AI, robotics and its Gemini models to accelerate superconductors research. The new facility uses a Model Context Protocol to streamline experiments, promising faster breakthroughs in quantum materials. Curious how AI is reshaping labs? Dive into the details. #DeepMind #AI #Robotics #Superconductors

    🔗 aidailypost.com/news/deepmind-

  29. DeepMind has launched the UK’s first fully automated lab, blending AI, robotics and its Gemini models to accelerate superconductors research. The new facility uses a Model Context Protocol to streamline experiments, promising faster breakthroughs in quantum materials. Curious how AI is reshaping labs? Dive into the details. #DeepMind #AI #Robotics #Superconductors

    🔗 aidailypost.com/news/deepmind-