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From Black-Body Radiation to Gravity: Why Quarks are Magnetic Electrons and why Gluons are Massive Photons
In an historic perspective on the development of the Standard Model of particle physics it is shown how mathematically driven axioms have masked the merits of a physically comprehensible structural view. It is concluded that the difference between the two approaches can be traced back to two major issues. Whereas in the Standard Model the quark is a Dirac particle with a single real dipole moment, the quark in the structural model, in confinement with other quarks, is a Dirac particle with two real dipole moments. The second issue is the view that empty space does not exist, but that space is filled with a polarizable energetic fluid. It is shown how recognition of these two issues paves a road to reconcile particle physics with gravity, in which the quark can be seen as a magnetic electron and in which the gluon, as the strong force carrier, can be seen as a massive photon.
Keywords
Gluon, Strong Interaction, Weak Interaction, Topquark, Gravity, SU(2) and SU(3).
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- Debye P, Huckel E. De la theorie des electrolytes. I. abaissement du point de congelation et phenomenes associes. Physikalische Zeitschrift. 1923;24(9):185-206.
- Gonano CA, Zich RE, Mussetta M. Definition for polarization P and magnetization M fully consistent with Maxwell's equations. Progress In Electromagnetics Research B. 2015;64:83-101.
- Griffiths D. Introduction to elementary particles. John Wiley & Sons. 2020.
- Dirac PA. The quantum theory of the electron. Proceedings of the Royal Society of London. Series A, Containing Papers of a Mathematical and Physical Character. 1928;117(778):610-24.
- Roza E. On the second dipole moment of Dirac’s particle. Foundations of Physics. 2020;50(8):828-49.
- Roza E, “On the second dipole moment of Dirac’s particle”, 2021
- Roza E. On the Mass of the Nucleons from" First Principles".2022.
- Roza E. On the quark scaling theorem and the polarisable dipole of the quark in a scalar field.2022.
- Roza E. The H-type quark and the mass of mesons. Physics Essays. 2012;25(2).
- Tanabashi M, Hagiwara K, Hikasa K, et al. Review of Particle Physics: particle data groups. Physical Review D. 2018;98(3):1-898.
- Bartlett P, Howard BJ. The rotational-vibrational spectrum of symmetric non-rigid triatomics in hyperspherical coordinates: the H+ 3 molecule. Molecular Physics. 1990;70(6):1001-29.
- Whitten RC, Smith FT. Symmetric Representation for Three‐Body Problems. II. Motion in Space. Journal of Mathematical Physics. 1968;9(7):1103-13.
- Roza E. The H-type quark and the baryons (supplement). Physics Essays. 2014;27(3):340-50.
- Roza E. The impact of the quark’s monopole properties on the unification of the fundamental physical forces.2022.
- Dirac PA. Quantised singularities in the electromagnetic field. Proceedings of the Royal Society of London. Series A, Containing Papers of a Mathematical and Physical Character. 1931;133(821):60-72.
- Comay E. Spin, isospin and strong interaction dynamics. PROGRESS. 2011:55.
- Comay E. Inherent Differences between Bound and Radiation Fields. Open Access Library Journal. 2018;5(4):1-8.
- Schwinger J. A Magnetic Model of Matter: A speculation probes deep within the structure of nuclear particles and predicts a new form of matter. Science. 1969;165(3895):757-61.
- Sakharov AD. Mass formula for mesons and baryons. Sov. Phys.-JETP (Engl. Transl.);(United States). 1980;51(6).
- Wu SL. Discovery of the gluon. International Journal of Modern Physics A. 2014;29(32):1430074.
- Abe F, Akimoto H, Akopian A, et al. Observation of top quark production in p p collisions with the Collider Detector at Fermilab. Physical review letters. 1995;74(14):2626.
- Abachi S, Abbott B, Abolins M, et al. Observation of the top quark. Physical review letters. 1995;74(14):2632.
- Cortiana G. Top-quark mass measurements: review and perspectives. Reviews in Physics. 2016;1:60-76.
- Roza E. A hypothetical H-particle. Physics Essays. 2011;24(1):72-85.
- Roza E. The gravitational constant as a quantum mechanical expression. Results in physics. 2016;6:149-55.
- Roza E. From Black-Body Radiation to Gravity: Why Neutrinos are Left-Handed and Why the Vacuum is not Empty.2022.
- Roza E. On the vacuum energy of the universe at the galaxy level, the cosmological level and the quantum level. 2021.
- Roza E. On the compatibility of the H-particle with the Standard Model. Physics Essays. 2011;24(3).
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