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#simulateduniverse — Public Fediverse posts

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

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  1. Unlike the one of yesterday, this is a tomography of the magnetic field strength for the same Coma-like cluster of galaxies simulated with the Enzo code. The different ropes of magnetic fields are all connected together and the largest structures can be hundreds of kiloparsecs long! They are frozen in the plasma, and overall the motions of the latter shapes the 3D distribution of the magnetic field. #astrophysics #SimulatedUniverse #science

  2. Unlike the one of yesterday, this is a tomography of the magnetic field strength for the same Coma-like cluster of galaxies simulated with the Enzo code. The different ropes of magnetic fields are all connected together and the largest structures can be hundreds of kiloparsecs long! They are frozen in the plasma, and overall the motions of the latter shapes the 3D distribution of the magnetic field. #astrophysics #SimulatedUniverse #science

  3. Unlike the one of yesterday, this is a tomography of the magnetic field strength for the same Coma-like cluster of galaxies simulated with the Enzo code. The different ropes of magnetic fields are all connected together and the largest structures can be hundreds of kiloparsecs long! They are frozen in the plasma, and overall the motions of the latter shapes the 3D distribution of the magnetic field. #astrophysics #SimulatedUniverse #science

  4. Unlike the one of yesterday, this is a tomography of the magnetic field strength for the same Coma-like cluster of galaxies simulated with the Enzo code. The different ropes of magnetic fields are all connected together and the largest structures can be hundreds of kiloparsecs long! They are frozen in the plasma, and overall the motions of the latter shapes the 3D distribution of the magnetic field. #astrophysics #SimulatedUniverse #science

  5. Unlike the one of yesterday, this is a tomography of the magnetic field strength for the same Coma-like cluster of galaxies simulated with the Enzo code. The different ropes of magnetic fields are all connected together and the largest structures can be hundreds of kiloparsecs long! They are frozen in the plasma, and overall the motions of the latter shapes the 3D distribution of the magnetic field. #astrophysics #SimulatedUniverse #science

  6. Tomography of the X-ray surface brightness of a Coma-sized simulated cluster of galaxies , across its full 6 Megaparsecs of virial diameter. #SimulatedUniverse #astrophysics #science

  7. Tomography of the X-ray surface brightness of a Coma-sized simulated cluster of galaxies , across its full 6 Megaparsecs of virial diameter. #SimulatedUniverse #astrophysics #science

  8. Tomography of the X-ray surface brightness of a Coma-sized simulated cluster of galaxies , across its full 6 Megaparsecs of virial diameter. #SimulatedUniverse #astrophysics #science

  9. Tomography of the X-ray surface brightness of a Coma-sized simulated cluster of galaxies , across its full 6 Megaparsecs of virial diameter. #SimulatedUniverse #astrophysics #science

  10. Tomography of the X-ray surface brightness of a Coma-sized simulated cluster of galaxies , across its full 6 Megaparsecs of virial diameter. #SimulatedUniverse #astrophysics #science

  11. This is what happens when I do an edible and watch a movie, I end up finding proof that reality is a simulation with self aware metajokes written in....

    🍔🍔

    #thefiftthelement #movie #SimulatedUniverse

  12. This is what happens when I do an edible and watch a movie, I end up finding proof that reality is a simulation with self aware metajokes written in....

    🍔🍔

    #thefiftthelement #movie #SimulatedUniverse

  13. This is what happens when I do an edible and watch a movie, I end up finding proof that reality is a simulation with self aware metajokes written in....

    🍔🍔

    #thefiftthelement #movie #SimulatedUniverse

  14. I tend to think the simulation theory of the universe is a bit too literal for its own good. We may end up confirming that the laws of physics are LIKE those of a simulation, but that may simply be because our own simulations exist within the universe and therefore mimic the UNIVERSE'S laws, not the other way around.

    But hey. It's not off the table. I just think it's too simple of a theory, and the truth is probably much stranger.

    #simulation #simulationtheory #simulateduniverse #science #physics

  15. I tend to think the simulation theory of the universe is a bit too literal for its own good. We may end up confirming that the laws of physics are LIKE those of a simulation, but that may simply be because our own simulations exist within the universe and therefore mimic the UNIVERSE'S laws, not the other way around.

    But hey. It's not off the table. I just think it's too simple of a theory, and the truth is probably much stranger.

    #simulation #simulationtheory #simulateduniverse #science #physics

  16. I tend to think the simulation theory of the universe is a bit too literal for its own good. We may end up confirming that the laws of physics are LIKE those of a simulation, but that may simply be because our own simulations exist within the universe and therefore mimic the UNIVERSE'S laws, not the other way around.

    But hey. It's not off the table. I just think it's too simple of a theory, and the truth is probably much stranger.

    #simulation #simulationtheory #simulateduniverse #science #physics

  17. I tend to think the simulation theory of the universe is a bit too literal for its own good. We may end up confirming that the laws of physics are LIKE those of a simulation, but that may simply be because our own simulations exist within the universe and therefore mimic the UNIVERSE'S laws, not the other way around.

    But hey. It's not off the table. I just think it's too simple of a theory, and the truth is probably much stranger.

    #simulation #simulationtheory #simulateduniverse #science #physics

  18. I tend to think the simulation theory of the universe is a bit too literal for its own good. We may end up confirming that the laws of physics are LIKE those of a simulation, but that may simply be because our own simulations exist within the universe and therefore mimic the UNIVERSE'S laws, not the other way around.

    But hey. It's not off the table. I just think it's too simple of a theory, and the truth is probably much stranger.

    #simulation #simulationtheory #simulateduniverse #science #physics

  19. How to beat Simulated Universe World 5.

    Have characters that don't fit to each other.

    Have not a single element that can break enemy thoughness.

    Have mostly 3/4 star Relics with shitty substats.

    Throw more 5 star chars at the problem.

    (Be lucky)

    #hsr #HonkaiStarRail #SimulatedUniverse

  20. How to beat Simulated Universe World 5.

    Have characters that don't fit to each other.

    Have not a single element that can break enemy thoughness.

    Have mostly 3/4 star Relics with shitty substats.

    Throw more 5 star chars at the problem.

    (Be lucky)

    #hsr #HonkaiStarRail #SimulatedUniverse

  21. How to beat Simulated Universe World 5.

    Have characters that don't fit to each other.

    Have not a single element that can break enemy thoughness.

    Have mostly 3/4 star Relics with shitty substats.

    Throw more 5 star chars at the problem.

    (Be lucky)

    #hsr #HonkaiStarRail #SimulatedUniverse

  22. #SimulatedUniverse can look very weird if you play with the fields they contain.
    This is are the streamlines of magnetic fields for a thin slice through a large volume.

  23. #SimulatedUniverse can look very weird if you play with the fields they contain.
    This is are the streamlines of magnetic fields for a thin slice through a large volume.

  24. #SimulatedUniverse can look very weird if you play with the fields they contain.
    This is are the streamlines of magnetic fields for a thin slice through a large volume.

  25. #SimulatedUniverse can look very weird if you play with the fields they contain.
    This is are the streamlines of magnetic fields for a thin slice through a large volume.

  26. #SimulatedUniverse can look very weird if you play with the fields they contain.
    This is are the streamlines of magnetic fields for a thin slice through a large volume.

  27. Since the evolution of the relativistic electrons is tracked in this #SimulatedUniverse, we can also have an idea of the ageing (via radiative losses) and re-energisation (by getting energy from the surrounding cluster weather, via Fermi I/II acceleration) the electrons are subject too.

    This cause variations in their emission spectra [I(ν)~ν^(-α)] where α typically starts with 0.6, and then "steepens" to 2, meaning that most of high energy particles have lost their energy.

  28. Since the evolution of the relativistic electrons is tracked in this #SimulatedUniverse, we can also have an idea of the ageing (via radiative losses) and re-energisation (by getting energy from the surrounding cluster weather, via Fermi I/II acceleration) the electrons are subject too.

    This cause variations in their emission spectra [I(ν)~ν^(-α)] where α typically starts with 0.6, and then "steepens" to 2, meaning that most of high energy particles have lost their energy.

  29. Since the evolution of the relativistic electrons is tracked in this #SimulatedUniverse, we can also have an idea of the ageing (via radiative losses) and re-energisation (by getting energy from the surrounding cluster weather, via Fermi I/II acceleration) the electrons are subject too.

    This cause variations in their emission spectra [I(ν)~ν^(-α)] where α typically starts with 0.6, and then "steepens" to 2, meaning that most of high energy particles have lost their energy.

  30. Since the evolution of the relativistic electrons is tracked in this #SimulatedUniverse, we can also have an idea of the ageing (via radiative losses) and re-energisation (by getting energy from the surrounding cluster weather, via Fermi I/II acceleration) the electrons are subject too.

    This cause variations in their emission spectra [I(ν)~ν^(-α)] where α typically starts with 0.6, and then "steepens" to 2, meaning that most of high energy particles have lost their energy.

  31. Since the evolution of the relativistic electrons is tracked in this #SimulatedUniverse, we can also have an idea of the ageing (via radiative losses) and re-energisation (by getting energy from the surrounding cluster weather, via Fermi I/II acceleration) the electrons are subject too.

    This cause variations in their emission spectra [I(ν)~ν^(-α)] where α typically starts with 0.6, and then "steepens" to 2, meaning that most of high energy particles have lost their energy.