Electron Helix and Electrostatic Flux Symbolism

Following up on my post two days ago, https://www.facebook.com/share/p/174TSELdWm/ speculatively modelling possible ways that a stack of electrons in an electrostatic voltage could end up with a helix shape, as symbolism seems to show as hair curls at the edge of a headband portal.

Going back to the donut or inner tube analogy of electrons, maybe a stack of them gets so tall that they naturally want to curl and end up looking like a helical shape, image E.

I had to do a lot of photoshop bending, so it's messy, trying to show this idea.

If there is magnetic flux flowing through the center of each inner tube, then altogether they form a solenoid of flux.

(Not a solenoid of moving electrons).

Do you suppose that the donut hole of an electron is pretty small, and only very small high-density flux can go through its donut hole?

The protons of ferromagnetic atoms presumably have bigger donut holes.

I think we should explore this further.

Solenoids create magnetic flow, but electrostatic solenoids (hypothetically) attract or repel other electrostatics but they do not deflect compass needles, so this sounds familiar, like how normal magnetic flows do not interact with high-density flux, and visa versa.

Ie, how scalar horizontal plane flux is very hard to detect, except recently by atomic interferometry devices.

Today I'm watching this video, https://www.youtube.com/watch?v=4mFmvVlVtzQ and it's SO FRUSTRATING, for 1 hour he does not mention that using metal versus glass or plastic rods, metal can discharge electrons back into the body (with the body acting as a big capacitor).

Watch at 1.5x speed.

A plastic chopstick rubbed on a fake sheepskin fabric will replicate what he does.

Using the word "charge" that attracts or repels, has IMO harmed our understanding of it.

I'd prefer if we simply learned about magnetic flux and realized that some kinds don't interact with others very much.

Image D with inner tubes representing electrons in a stack, but those electrons don't like to touch each other, their surfaces repel, so there will always be gaps between them.

Similarly on image E, imagine some very tiny flux going inside each tube as it makes the helix shape, but the gaps between helix loops are wider than the electron donut holes, so bigger size flux can be drawn into the center of the electrostatic solenoid, and the video (above) certainly shows electrostatics being able to push electons on the paper and cardboard surfaces in that video.

But the flux size from ferromagnetic or normal electric induction coils, can't push the charged paper surfaces, nor can a charged chopstick push a compass needle.

Size matters, a saying we might explore about flux, flux tubes and electron donut surfaces.

Anyway, I don't even know if these hair curls are electrostatic.

Grok confirmed that witnesses of portals not only report electrostatic feeling, there are magnetic disturbances too, so these hair curls might be about magnetic flux leakage at the portal edges, oh, and light also is commonly thought of as helical (but probably just shorter photon lengths, not long curl tubes.

As usual, this is just exploratory food-for-thought, and hoping the universe answers the questions I've raised in the future.