by polytronic on 2/2/20, 9:56 PM with 38 comments
by hpcjoe on 2/3/20, 12:01 AM
Doing a bit more of a look on the RLM, I found this[1] where they (mis)write the relation between inertial and rest mass. Specifically the gamma^3 factor ...
I've been out of physics for more than 20 years, so it's possible that there has been some new development since my Ph.D. Though 2 additional factors of gamma in special relativity aren't likely.
Color me ... skeptical.
I did follow their Einstein paper reference[2] to see if I had missed something. I didn't. I don't understand the origin of their 2 extra gammas in eqn 1 of the first reference. The paper abstract appears to be a continuation of that work.
From what I could determine, they need the gamma^3 term for their arguments, but it doesn't come from Einstein's paper as they claimed.
Again, I could be missing something, but I don't think I am.
[1] https://iopscience.iop.org/article/10.1088/1742-6596/738/1/0...
by wrycoder on 2/2/20, 11:51 PM
https://arxiv.org/abs/2001.09760
Very novel :-/
edit: They have published a book. One can read the preview on Amazon to get a feel for it:
https://www.amazon.com/Gravity-Special-Relativity-Strong-Boh...
They aren't attracting any citations.
by gus_massa on 2/3/20, 12:40 PM
For comparison, in the Standard Model, the proton is made of two up quarks an one down quark [1]. Each of the has spin 1/2, and the composite particle must have a non integer spin: 1/2 or 3/2 in this case. The proton is the one with spin 1/2. The version with spin 3/2 is the Delta+ particle, that is a 30% "heavier".
[There are other technical details, like if the three rotating neutrinos break the Pauli exclusion principle for neutrinos. I suspect that this is a problem, but I'm not sure. The inclusion of the Higgs boson is very strange. Anyway, the total spin is the easier to explain and check.]
[1] And a bunch of gluons of spin 0 and virtual particles that get compensated and don't affect the total spin. Let's use the naïve version with only three quarks.
by ur-whale on 2/2/20, 11:35 PM
https://sci-hub.tw/https://doi.org/10.1016/j.physa.2019.1236...
by wbhart on 2/3/20, 3:00 AM
by mikhailfranco on 2/3/20, 11:31 AM
The Zitterbewegung Interpretation of Quantum Mechanics
The zitterbewegung is a local circulatory motion of the electron presumed to be the basis of the electron spin and magnetic moment. A reformulation of the Dirac theory shows that the zitterbewegung need not be attributed to interference between positive and negative energy states as originally proposed by Schroedinger. Rather, it provides a physical interpretation for the complex phase factor in the Dirac wave function generally. Moreover, it extends to a coherent physical interpretation of the entire Dirac theory, and it implies a zitterbewegung interpretation for the Schroedinger theory as well.
by sofos123 on 2/10/20, 4:49 PM
by mechhacker on 2/2/20, 11:44 PM
https://iopscience.iop.org/article/10.1088/1742-6596/738/1/0...
by lopsidedBrain on 2/2/20, 11:33 PM
by svd4anything on 2/3/20, 10:18 PM
by jml7c5 on 2/2/20, 11:58 PM
by peter_d_sherman on 2/2/20, 11:42 PM
Gravity and Inertia...
So maybe they're onto something there...
by lostmsu on 2/3/20, 8:13 AM