Uploaded November 2021 | Updated September 2026, 2 weeks ago
Many people have been asking me to make a video showing what a magnet looks like as it is rotating under a ferrocell. One of the main reasons I wanted a ferrocell simulator was so I could do exactly this. When I first saw a video animation of a rotating Kerr black hole (youtube.com/watch?v=KikdPbX7z8Q), I saw something that looked familiar to me. I speculated that a rotating magnet under a ferrocell would look a lot like what I saw in that video and saw evidence of this in my own ferrocell experiments. It is my opinion that black holes are in fact VERY LARGE "magnets". New research appears to support this idea.
theconversation.com/weve-imaged-a-black-holes-magnetic-field-for-the-first-time-heres-what-it-reveals-157918
It is also my opinion that the medium for the propagation of light (the fabric of space) is very much like a ferrofluid. That is part of my "Aether" theory that I have never really talked until now. (This was the real reason for my interest in the ferrocell.) I can't get into the details because I am still working on it, but this would explain why the rotating magnet under a ferrocell looks so much like the rotating Kerr black hole in their simulation.
Many people have been asking me to make a video showing what a magnet looks like as it is rotating under a ferrocell. One of the main reasons I wanted a ferrocell simulator was so I could do exactly this. When I first saw a video animation of a rotating Kerr black hole (youtube.com/watch?v=KikdPbX7z8Q), I saw something that looked familiar to me. I speculated that a rotating magnet under a ferrocell would look a lot like what I saw in that video and saw evidence of this in my own ferrocell experiments. It is my opinion that black holes are in fact VERY LARGE "magnets". New research appears to support this idea.
theconversation.com/weve-imaged-a-black-holes-magnetic-field-for-the-first-time-heres-what-it-reveals-157918
It is also my opinion that the medium for the propagation of light (the fabric of space) is very much like a ferrofluid. That is part of my "Aether" theory that I have never really talked until now. (This was the real reason for my interest in the ferrocell.) I can't get into the details because I am still working on it, but this would explain why the rotating magnet under a ferrocell looks so much like the rotating Kerr black hole in their simulation.




![Demystifying the Ferrocell : Part1
In this next series of videos, I will explain to you exactly the steps I took to simulate the ferrocell as I showed in the previous teaser video. NOTE: the volume of this video might be lower than usual since I accidentally recorded with the system microphone and not the better mic that I have and so you may need to turn up your volume for this one.
Here is a link to the paper on MagPyLib:
https://www.sciencedirect.com/science/article/pii/S2352711020300170
Here is a link to the MagPyLib quick start guide:
https://magpylib.readthedocs.io/en/latest/
Here is my Python code for generating the magnetic moments:
import random
from magpylib.source.magnet import Cylinder
magnet_Height= 25
magnet_Diameter= 20
magnet_Strength = 14800
ferrocell_Diameter = 50
ferrocell_Height = 10
ferrocell_Half = 5
thickness = 0.001
s = Cylinder( mag = [0,0,magnet_Strength], dim = [magnet_Diameter,magnet_Height])
f = open(c:/Magnets/MagneticField_300000_2.txt, a)
for x in range(300000):
x = (random.random() *ferrocell_Diameter) -ferrocell_Diameter/2
y = (random.random() *ferrocell_Diameter) -ferrocell_Diameter/2
z =magnet_Height +ferrocell_Half + (random.random() * thickness)
v = s.getB([x,y,z])
f .write(str(x) + + str(y) + + str(z) + + str(v[0]) + + str(v[1]) + + str(v[2]) + n)
f.close() Demystifying the Ferrocell : Part1](https://i.ytimg.com/vi/VM90bghJ1Fc/mqdefault.jpg)





