- #1
D9 XTC
- 30
- 0
Okay, so let's say there is an object with a shaft connected to it. The shaft rotationally spins the object.
On the top and bottom of the object are N magnetic fields. Not touching the object or shaft are magnets attached to a solid surface with N fields. Those are within distance to act on the objects magnetic fields that are N fields as well.
Basically, the object is floating (and kept in place by mono fields on the top and bottom) and can be spun.
My question: if the magnetic fields were just strong enough to make the object float (not a very strong field) would it take as much or more energy to spin the same setup except with extremely strong magnetic fields? It seems to me that since there is no friction between parts then even a crushing strong field would be just as easy to spin...
On the top and bottom of the object are N magnetic fields. Not touching the object or shaft are magnets attached to a solid surface with N fields. Those are within distance to act on the objects magnetic fields that are N fields as well.
Basically, the object is floating (and kept in place by mono fields on the top and bottom) and can be spun.
My question: if the magnetic fields were just strong enough to make the object float (not a very strong field) would it take as much or more energy to spin the same setup except with extremely strong magnetic fields? It seems to me that since there is no friction between parts then even a crushing strong field would be just as easy to spin...