I'm sorry I haven't been able to write much lately. This is our busy season here at the Albion Inn and my innkeeping duties prevent me from sitting at the computer long enough to get an article out. But every once in a while we have a guest here at the inn that somehow furthers the Simple Explanation along, either through discussions with me, or through some other means.
We had a physics professor staying here at the Albion Inn last week. He and his wife were amused to see the torus on my Simple Explanation business card. It happens to be the same torus drawing as the illustration below. Turns out this professor, Gerald Miller, demonstrated back in 2003 that some protons are toroidal. The others, he said, were spherical. I asked him if it was possible that the spherical protons were actually toroidal. He said, "no." But then I asked him if the spherical protons might not look spherical on the outside, but possess toroidal flow energies within their borders. He said, "yes, that could be the case."
Here's a short article from the online Discover Magazine about it:
We had a physics professor staying here at the Albion Inn last week. He and his wife were amused to see the torus on my Simple Explanation business card. It happens to be the same torus drawing as the illustration below. Turns out this professor, Gerald Miller, demonstrated back in 2003 that some protons are toroidal. The others, he said, were spherical. I asked him if it was possible that the spherical protons were actually toroidal. He said, "no." But then I asked him if the spherical protons might not look spherical on the outside, but possess toroidal flow energies within their borders. He said, "yes, that could be the case."
Here's a short article from the online Discover Magazine about it:
Discover Magazine,What Shape Are Your Protons?
by Kathy A. Svitil
In the subatomic world, nothing is simple. Take the proton, a fundamental particle found in the nucleus of every atom. For decades, students have been taught to picture the proton as a nice round ball, like a miniature planet. But no: The latest computer simulations show the particles can resemble peanuts, beehives, even bagels.
The three faces of a proton: sphere, peanut, and bagel.
Graphics courtesy of Gerald Miller/University of Washington (3).
Protons are complicated because they are composites of three smaller bits, called quarks, that zip around inside at roughly half the speed of light. "Quarks cannot escape from the proton. When they come to a wall, they turn around and change their direction," says theoretical physicist Gerald Miller of the University of Washington. Bouncing around gives the proton a net angular momentum. Using a mathematical model based on studies from particle accelerators, Miller showed how a proton's internal momentum affects its shape. Fast quarks that spin in the same direction as the overall proton distort it into a peanut, while quarks that have opposite spin breed bagels. Proton shape-shifting probably influences subatomic interactions in ways that are not yet known. Nobody understands exactly how the momentum inside a proton keeps changing. "All we can say is that sometimes it is large and sometimes small, and every proton can fluctuate instantly from one shape to another," Miller says.
I just love how the universe brings all good things to me. Even our guests are special.
Doesn't the peanut shaped proton look like it houses twin toroids? Its waist is really the dip between the two objects. Perhaps this the uber-twin shape; the pattern for mytosis. The single toroid dividing into two; the peanut being the halfway stage.
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