The arrows just show you the direction of the photon, as it were. They also highlight the fact that you've got a double-loop path going round 720 degrees.
You can play around with gifs to clarify this. The first gif is the original ring torus, the second one is time-reversed, the third one is time-reversed and flipped horizontally.
In his usual style, rpenner has addressed this argument with more eloquence and rigor than I ever could. Suffice it to say, I was quite amused to see that you were literally manipulating the .gif, as opposed to the object in the modeling software.
I clicked the link just to be sporting, but honestly, I have no interest in Googling a broad concept and combing through the results for evidence in favor of my opponent's argument. I want
you to show me this magical geometry that looks Euclidean on large scales but violates the hairy ball theorem.
Who says I have no illustrations? This is an illustration of a photon:
I didn't say you have no illustrations; I said none of your illustrations exhibit any of the remarkable properties you insist the electron has. Your illustration of a photon is in one spatial dimension, with no curvature. Your illustrations of toruses are highly anisotropic and not distinct under 3-D rotation. An illustration (or even better, an equation) that exhibits isotropy and an actual difference between inversion and time reversal is so far absent, and I assert impossible to make. Prove me wrong.
Well I do, and so do a lot of other people.
This is exactly the point under contention. Everyone here except you is convinced that your model does not, and cannot, predict an electron with an isotropic, stable field. When you simply state that your model does make such predictions without explaining how, it comes across as an empty assertion at best and a lie born of desperation at worst. Show us a geometry that actually has the properties you claim, and then we'll be getting somewhere.
I don't have an issue if you object to the particulars of what I've been saying, but the evidence for the wave nature of the electron is patent, along with the evidence of some form of rotation. However there is absolutely no evidence that the electron is some photon-spitting point-particle. That's absurd, it's cargo-cult nonsense peddled by arrogant quacks who take the public for fools.
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No it isn't arrogant. What's arrogant is to ignore all the scientific evidence.
You think that given the physical evidence, your model (or something similar to it) is obviously correct. I have looked at all the same evidence as you, and I disagree. So how do we get past this impasse? Fortunately, in the sciences, there is a standard way to weigh competing models objectively: compare the predictions of each model against real world observations. On my side of the argument, I make the following observation:
*Within its domain of applicability, QED predicts all observed phenomena to very high accuracy.
Of course, that doesn't guarantee that QED is correct. There could be as-yet-unobserved phenomena that contradict QED, or there could be a different model that makes the same predictions but with a more general scope and/or better explanatory power. But in order to be considered as a viable alternative to QED, your model must at least meet the same standard of predicting all observed phenomena to comparable accuracy. In this regard, there are three major strikes against it:
*In the real world, time-reversing the dynamics of an electron does something fundamentally different from any spatial rotation. Your model as presented does not predict this, and it is not clear how your theory could be modified to rectify the error.
*In the real world, the repulsion between two electrons is highly isotropic in three dimensions. Your model as presented does not predict this, and there are strong field-theoretic reasons to think that no modification could rectify the error.
*The Schrodinger equation (which nicely predicts many phenomena even outside the domain of QED) says that any state with spatial extent far outside its binding radius must be unstable and prone to spontaneous unbinding. Your model violates this rule, and so is in competition with the Schrodinger equation as well as QED.
Of course, I might be wrong about some or all of these points. Your job is to show that I'm making mistakes in all of these observations, or at least that I'm missing something that would make the errors less fatal to your model. But you do have to address all of them, and the burden of proof is squarely on you to show a theory that does not have these problems, even when I can't give you an airtight "no-go" theorem. To save you the trouble of repeating yourself, the following arguments (numbered helpfully for future reference) are
not responsive to any of the standing challenges, and I will ignore them from here on:
1. Assuring me that there totally is a modification of your model without the listed problems.
2. Reiterating that your model is obviously right given the evidence, possibly along with platitudes like "magnets don't shine".
3. Saying that QED is "cargo cult nonsense", or that I am "getting in the way of scientific progress".
4. Telling me to Google/brush up on any broad sub-discipline of electrodynamics.
5. Offering vague analogies, e.g. to force screws or ocean waves.
6. Citing the opinions of any other scientist (including Maxwell), except insofar as that opinion is directly tied to a concrete model/equation than can be evaluated.
Hope that helps! I look forward to hearing your subsequent responses without any of the above distractions.
It doesn't violate the Schrodinger equation because there is no such thing as probability amplitude.
Wow. I was not expecting that. Showing that probability amplitude does, in fact, exist is certainly beyond the scope of this thread. But fortunately for me, I was only using the phrase "probability amplitude" for technical accuracy - my argument is if anything easier to understand without the term:
The Schrodinger equation predicts that if there is high probability to see a bound particle well outside of its binding radius, that particle will be prone to spontaneous unbinding via tunneling. Your electron is just such a bound particle, and the Schrodinger equation predicts it should not be stable.
See
this article? It's not bad. But see this?
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That's wrong.
It's a little weird to cite an article no one was talking about for the sole purpose of saying it's wrong. I don't know what you were hoping to accomplish by that.