Yes. I have to say though that IMHO all the source-and-sink stuff is just so misleading. Next time you have a bath, study the water coming from the tap, then study the vortex as the water goes down the plughole. Then get yourself a plate and find a pond, and make a Falaco soliton. There is no source, and no sink either.Oh, most definitely. I only meant that I was interested in regions of space where the charge density was non-zero, as opposed to a vacuum somewhere. Did the rest of it make sense?
OK noted.I'm not sure I agree with the "therefore" here, although I don't have a problem with the conclusion that monopoles don't exist, provided that Maxwell's equations are correct of course (as normally written, with div B = 0, or in the covariant formulation d*F = 0).
I think it's important to try to "grasp" it. Don't just shut up and calculate. Imagine space is a stiff lattice. Reach in with your right hand and grab it, then turn it clockwise by one full turn. Then reach in round the side with your left hand and turn it anticlockwise by half a turn. Now remove your hands, and the lattice stays hitched. That's what the electron electromagnetic field "looks" like. Try not to think of the electron as some little round thing in the middle. The whole thing is the electron, and it isn't static, it's dynamical, it's a wave going round and round such that a propagating field variation looks like standing field.I'm afraid I didn't grasp your analogy there, but no worries.
I'll look into it. Thanks.In all honesty, my request for the diagrams for electric and magnetic dipoles were more for your benefit; I wanted you to see the ambiguity I mentioned for yourself, rather than expect you to simply take my word for it. Wolfram Alpha (wolframalpha.com) can do streamline plots, incidentally, if you don't have plotting software. You give it a query like this...
I don't think it's novel, there's been a lot of "electron model" papers over the years, but they tend to go unnoticed. For example http://arxiv.org/abs/physics/0512265 isn't something that appeared in Nature. As for the standard one, there is no electron model. Which is why I'm forever saying the work required is "within the Standard Model", not "beyond the Standard Model".That sounds intriguing. Is this a novel model, or something equivalent (in terms of observables) to the standard one?
Here, for your amusement and delectation, take a look at the spindle-sphere torus again:

You see a sphere. Whenever you see a sphere you think 4π. You also see a rotation, and knowing as you do about pair production, c springs to mind. But there's another orthogonal rotation at "half the rate" as per the Dirac's belt Moebius strip. You know that Planck length is l=√(ћG/c³). Replace √(ћG) with 4πn where n is a suitable value with the right dimensionality. You still have your Planck length l=4πn/√(c³). You can write that as l=4πn/c[sup]1½[/sup]. Now set n to 1, and work out 4πn/c[sup]1½[/sup]. It isn't a perfect answer because of the binding energy but it ought to be close enough to be intriguing. People complain about units, but when you dig down to the fundamentals you've got waves in space and that's it. You end up with harmonics and ratios. Speaking of which, try c[sup]½[/sup] / 3π. Forget about the dimensionality, imagine you've adjusted for that with some other n=1 artifice.
c[sup]½[/sup] = 17314.5158177
3π = 9.424778
c[sup]½[/sup] / 3π = 17314.5158177 / 9.424778 = 1837.12717877
Again not perfection, but close enough to be interesting.
Doo doo doo doo, doo doo doo doo. Welcome. To the Twilight Zone!