That article does not describe a wave going round and round, it discusses a beam of photons that have their polarization controlled in a certain way in different regions. Again you are saying things about your citation that simply are not true. I doubt that you actually have a copy of that paper and that you have read it. Even if you somehow paid for a copy, if you understood it, then you are now lying about it.A wave that goes round and round. A bit like this.
All the comments seem to be comments from crackpots. However, even one of the crackpots notes that in order for the crazy electron-made-of-light idea to work, the details have to be worked out.See the comments. Quick, before they get deleted.
While a dubious source like that is of no use to any of us, it at least provided the means to find a number of questions that you have to answer, Farsight.This is what the wave nature of matter is all about. And TQFT. Attached below is Qiu-Hong Hu's ABB50/25 poster. He talked to Sir Michael Atiyah about it. And about the trefoil photon. Find a picture of a trefoil, like the one below. Start at the bottom left and go round it clockwise calling out the crossing-over directions: up down up. Ring any bells? The given reason why you've never seen a free quark is just another fairy tale. You've never seen one because quarks are partons. Just parts. When you break this thing, the loops don't survive.
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The first comment on this link, http://www.quora.com/What-do-physicists-think-of-the-hubius-helix-model-of-electron-structure , nicely lays out the requirements for anyone who wants to claim that the electron has an internal structure. It is a direct response to Qiu-Hong Hu's idea.
So, Farsight, I know that you used to try to predict the fine structure constant, until you kept failing to put it in the correct units, but now you have a reason to try it for real.
Heck, I'll reprint the comment below:
[URL='http://www.quora.com/David-Simmons-Duffin']David Simmons-Duffin[/URL] said:Dear Hubius Helix Model,
So you want to be an electron model? That's great! A good electron model is a beautiful thing. Many wonderful and noble electron models before you have taught us innumerable things about the natural world. Unfortunately, to supplant the Standard Model as the world's next top electron model, you'll have to satisfy a few requirements:
Please come back when you have met all of these requirements.
- Experiments show that free electrons in slowly-varying electromagnetic fields move according to the Lorentz force law. You should make it possible to derive this law in the limit where fields vary slowly compared to the electron's Compton wavelength.
- Experiments show that in the presence of more rapidly varying fields, electron motion is well-described by the Schrödinger equation, as long as the velocity is much less than the speed of light. You should make it possible to derive this equation. In particular, you should correctly predict the Energy levels of atoms, up to relativistic corrections of order
, where
is the Fine-structure constant.![]()
- Experiments show that electron motion is compatible with the principles of Special relativity, and that it is well-described by the Dirac equation for arbitrary field profiles and electron velocities. You should make it possible to derive this equation. In particular, you should correctly predict the Fine structure of atoms (the
corrections to energy levels).![]()
- Experiments show that electrons have an Electron magnetic dipole moment given by
where
is the Bohr magneton,
is the electron spin, and
is the electron g-factor (physics). Experiments show that
. You should predict this value of
to 12 decimal places. You should also predict the Hyperfine structure of atoms and arbitrary higher corrections.![]()
- The Large Electron–Positron Collider collected about 1 inverse-femtobarn (Barn (unit)) of data on electron-positron annihilation between 1989 and 2000. You should correctly predict the probabilities for different processes measured at that experiment.
- The Large Hadron Collider has collected more than 5 inverse-femtobarns of data on proton-proton collisions, many of which involve electron and positron creation. You should correctly predict the probabilities for processes measured at that experiment which involve electrons and positrons.
Thanks and Best Wishes,
Physics