Magnetic flux motor just patented that creates it's own electricity!

[panyuming]

Yes, that's correct. "No. 4 material is made of a permanent magnet,"  What do you suggest, shouldn't be a permanent magnet?

In my opinion, when part 4 is aligned with the stator salient pole,
there are the most magnetic field lines, and it is difficult to move away.
As shown in Figure 3

It is easy to rotate only if the permanent magnet below rotates at a large angle,
so that the magnetic field lines at the salient pole are reduced to as few as possible.
As shown in Figure 4

If the No. 4 part is a permanent magnet,
the magnetic field lines at the salient pole are not easily reduced,
so it is difficult to leave and cannot be rotated.

https://overunity.com/19405/magnetic-flux-motor-just-patented-that-creates-its-own-electricity/msg574831/#msg574831

[sm0ky2]

Hannagan, Fourier, Foltz, induction from the earth's core




This is permanent magnets but emf is the same or a combination

https://youtu.be/SULL1Rh9wsM

Archimedes still applies here



If you were to suddenly stop the earth's rotation
the forces from the rotating core would spin it back up again
almost as fast as it was spinning to begin with

[Dog-One]

Can you please make more simulations about it and store the single pictures and then make a video out of it,so we can see, how you came to the conclusion, that it is really coming more torque out of it ?

You know what it looks like Stefan?

An invisible rubber band.

An attractive magnetic field force squeezes the flux path.  It will
only expand if an overpowering force makes it do so.  In this
case, because the director iron is right at the point of rotation
you have a huge mechanical advantage over this magnetic
rubber band.  The moment a preferred flux path appears,
this squeezing force literally crushes the rotor into its new
position.  And being a magnetic force, it will indeed accelerate
to this new position.  (F = ma)  Without damping, the force will
overshoot this new position and vibrate to a halt--underdamped
oscillation.

I think the primary reason for a torque gain is that the director
iron is in the optimal position being at the center of the shaft.
I also think the smaller you can reasonably make the director,
the more torque gain you can get.  Obviously, if it's too small
it can no longer do its primary function to redirect the flux path.

[Mem]

In my opinion, when part 4 is aligned with the stator salient pole,
there are the most magnetic field lines, and it is difficult to move away.
As shown in Figure 3

It is easy to rotate only if the permanent magnet below rotates at a large angle,
so that the magnetic field lines at the salient pole are reduced to as few as possible.
As shown in Figure 4

If the No. 4 part is a permanent magnet,
the magnetic field lines at the salient pole are not easily reduced,
so it is difficult to leave and cannot be rotated.

https://overunity.com/19405/magnetic-flux-motor-just-patented-that-creates-its-own-electricity/msg574831/#msg574831

Thanks for taking the time and simulate the concept. Make sense, it will be difficult to rotate the primary armature.

[hartiberlin]

Many Thanks panyuming or the simulation pics.

Can you see from the forces in the simulation if there is really a torque gain with such a setup ?


Can you please post the numbers that the simulation puts out ?

Many thanks.


Regards, Stefan.