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#mandelbulb — Public Fediverse posts

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

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  1. Soaring through the #Mandelbulb!😎🔥Make sure to join the #Fractal Flyers discord for more updates and apply to potentially become one of our testers! Link in bio🛸💨 #fpv #indiegames #fpvlife

  2. so Mandelbulb inherently has full spherical symmetry in its 3d imaginary part. Here I broke the symmetry by taking z=z*(z+i)+c as iteration function.
    The y-axis here rotates in the i-j-plane, the x-axis is the real part.
    #creativecoding #mandelbulb

  3. so Mandelbulb inherently has full spherical symmetry in its 3d imaginary part. Here I broke the symmetry by taking z=z*(z+i)+c as iteration function.
    The y-axis here rotates in the i-j-plane, the x-axis is the real part.
    #creativecoding #mandelbulb

  4. so Mandelbulb inherently has full spherical symmetry in its 3d imaginary part. Here I broke the symmetry by taking z=z*(z+i)+c as iteration function.
    The y-axis here rotates in the i-j-plane, the x-axis is the real part.
    #creativecoding #mandelbulb

  5. so Mandelbulb inherently has full spherical symmetry in its 3d imaginary part. Here I broke the symmetry by taking z=z*(z+i)+c as iteration function.
    The y-axis here rotates in the i-j-plane, the x-axis is the real part.
    #creativecoding #mandelbulb

  6. so Mandelbulb inherently has full spherical symmetry in its 3d imaginary part. Here I broke the symmetry by taking z=z*(z+i)+c as iteration function.
    The y-axis here rotates in the i-j-plane, the x-axis is the real part.
    #creativecoding #mandelbulb

  7. Shifting, turning, and eventually zooming in Mandelbulb.

    Full Video: youtu.be/opdSCKEUF8U

    #mandelbulb

  8. Shifting, turning, and eventually zooming in Mandelbulb.

    Full Video: youtu.be/opdSCKEUF8U

    #mandelbulb

  9. Shifting, turning, and eventually zooming in Mandelbulb.

    Full Video: youtu.be/opdSCKEUF8U

    #mandelbulb

  10. Shifting, turning, and eventually zooming in Mandelbulb.

    Full Video: youtu.be/opdSCKEUF8U

    #mandelbulb

  11. Shifting, turning, and eventually zooming in Mandelbulb.

    Full Video: youtu.be/opdSCKEUF8U

    #mandelbulb

  12. Perpendicular to the real axis.

    But there's something wrong in the code.
    This should be more symmetric.

    #mandelbulb #creativecoding

  13. Perpendicular to the real axis.

    But there's something wrong in the code.
    This should be more symmetric.

    #mandelbulb #creativecoding

  14. Perpendicular to the real axis.

    But there's something wrong in the code.
    This should be more symmetric.

    #mandelbulb #creativecoding

  15. Perpendicular to the real axis.

    But there's something wrong in the code.
    This should be more symmetric.

    #mandelbulb #creativecoding

  16. Perpendicular to the real axis.

    But there's something wrong in the code.
    This should be more symmetric.

    #mandelbulb #creativecoding

  17. "Just remember," she says. "I'm holding you responsible for all of this."

    #Monday #Mathart #Mandelbulb #Mood

  18. "Just remember," she says. "I'm holding you responsible for all of this."

    #Monday #Mathart #Mandelbulb #Mood

  19. "Just remember," she says. "I'm holding you responsible for all of this."

    #Monday #Mathart #Mandelbulb #Mood

  20. "Just remember," she says. "I'm holding you responsible for all of this."

    #Monday #Mathart #Mandelbulb #Mood

  21. "Just remember," she says. "I'm holding you responsible for all of this."

    #Monday #Mathart #Mandelbulb #Mood

  22. One way to avoid the sharp edges seen on the Mandelbox is to replace the non-smooth fold operations with something more like a wrap operation.
    As with the #MandelbrotSet and the #Mandelbulb we square the vector magnitude each iteration and find a way to multi-cover the remaining degrees of freedom.
    Unlike the Mandelbulb we can make this multi-cover conformal on the sphere by treating it as a Riemann sphere and using the transformation:
    \( \frac{-z}{2\sqrt{2}}\Pi_{j=0}^2 \frac{z-\sqrt{2}e^{2ji\pi/3}}{z-\sqrt{1/2}e^{(2j+1)i\pi/3}}\)

    The result is quite odd:
    (image by pupukuusikko: deviantart.com/pupukuusikko)

  23. One way to avoid the sharp edges seen on the Mandelbox is to replace the non-smooth fold operations with something more like a wrap operation.
    As with the #MandelbrotSet and the #Mandelbulb we square the vector magnitude each iteration and find a way to multi-cover the remaining degrees of freedom.
    Unlike the Mandelbulb we can make this multi-cover conformal on the sphere by treating it as a Riemann sphere and using the transformation:
    \( \frac{-z}{2\sqrt{2}}\Pi_{j=0}^2 \frac{z-\sqrt{2}e^{2ji\pi/3}}{z-\sqrt{1/2}e^{(2j+1)i\pi/3}}\)

    The result is quite odd:
    (image by pupukuusikko: deviantart.com/pupukuusikko)

  24. One way to avoid the sharp edges seen on the Mandelbox is to replace the non-smooth fold operations with something more like a wrap operation.
    As with the #MandelbrotSet and the #Mandelbulb we square the vector magnitude each iteration and find a way to multi-cover the remaining degrees of freedom.
    Unlike the Mandelbulb we can make this multi-cover conformal on the sphere by treating it as a Riemann sphere and using the transformation:
    \( \frac{-z}{2\sqrt{2}}\Pi_{j=0}^2 \frac{z-\sqrt{2}e^{2ji\pi/3}}{z-\sqrt{1/2}e^{(2j+1)i\pi/3}}\)

    The result is quite odd:
    (image by pupukuusikko: deviantart.com/pupukuusikko)

  25. and deeper inside reveals these elaborate ceilings and ornamentation.
    The nice looking arches are because the +c part stretches the spherical curves from the sphere inversions into ellipsoids. The orthogonal linear folds (called a box fold) also contribute to its architectural appearance compared to for example the #Mandelbulb.
    info: sites.google.com/site/mandelbo

  26. and deeper inside reveals these elaborate ceilings and ornamentation.
    The nice looking arches are because the +c part stretches the spherical curves from the sphere inversions into ellipsoids. The orthogonal linear folds (called a box fold) also contribute to its architectural appearance compared to for example the #Mandelbulb.
    info: sites.google.com/site/mandelbo

  27. and deeper inside reveals these elaborate ceilings and ornamentation.
    The nice looking arches are because the +c part stretches the spherical curves from the sphere inversions into ellipsoids. The orthogonal linear folds (called a box fold) also contribute to its architectural appearance compared to for example the #Mandelbulb.
    info: sites.google.com/site/mandelbo

  28. Hi Everyone, new podcast episode with dreamy and light-hearted mood ✨ Beautiful visuals / 3D art by Alessandro Granito . Enjoy! 😊

    🎧👉 linktr.ee/digigroovesession

    #melodichouse #organichousemusic #mix #djset #auja #tracklist #mandelbulb #3D #fractal #glsl #3dart #artcode #trippy

  29. Hi Everyone, new podcast episode with dreamy and light-hearted mood ✨ Beautiful visuals / 3D art by Alessandro Granito . Enjoy! 😊

    🎧👉 linktr.ee/digigroovesession

    #melodichouse #organichousemusic #mix #djset #auja #tracklist #mandelbulb #3D #fractal #glsl #3dart #artcode #trippy