High voltage charge & same polarity on two concentric rings

AI Thread Summary
A charged ring with high voltage potential causes charges to repel and position themselves on the outer surface. The proposal involves a second concentric ring with the same polarity, positioned outside the first, to push charges inward. This setup aims to maximize forces within the ring and reduce the diameter of the electric field without increasing voltage potential. The effectiveness of this method is questioned, but it seems theoretically plausible. The discussion centers on optimizing charge distribution for specific applications.
BernieM
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I have a charged ring with a high voltage potential.

As I see it the charges repel from each other and so position themselves around the outside of the ring.

I want to push the charge to the inside surface of the ring and so I envisioned a 2nd ring positioned concentrically just outside this ring, with the same polarity at equal or higher potential, to push the charge on the inner ring to the inside of it. Seems like it would work but will it really?
 
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BernieM said:
I have a charged ring with a high voltage potential.

As I see it the charges repel from each other and so position themselves around the outside of the ring.

I want to push the charge to the inside surface of the ring and so I envisioned a 2nd ring positioned concentrically just outside this ring, with the same polarity at equal or higher potential, to push the charge on the inner ring to the inside of it. Seems like it would work but will it really?
It seems like it should work. What is the application?
 
To maximize the forces inside the ring for positioning of a contained field and reducing the diameter of it without having to increase the voltage potential (eeking out a bit more from what's there rather than have to increase the voltage)
 
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