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[5] viXra:2611.0023 [pdf] submitted on 2026-11-07 23:58:02
Authors: Osama Haggag
Comments: 6 Pages. 10.5281/zenodo.24022407 (Note by viXra Admin: Please submit article written with AI assistance to ai.viXra.org)
We present a field-theoretic framework establishing the Photo-Inertial Effect (PIE), wherein the effective inertial mass of a localized matter wave is dynamically tuned via resonant electromagnetic gauge-phase coupling. Building upon the self-contained framework of covariant quantum clock fields, we model massive particles as extended quantum clocks cycling at their characteristic Compton frequency. We provide physical justification for transforming the canonical Hamiltonian energy partition into an active conservation law. Crucially, we resolve the central theoretical question of why resonant matter waves preferentially undergo coherent mass translation over standard quantum electrodynamic (QED) scattering. We prove that local gauge invariance renders linear phase-gradient coupling mathematically mandatory. While standard quantum electrodynamics erases this interaction under point-particle scattering approximations, Compton resonance converts it into a global parametric drive. Because phase gradients and spatial position are canonically dual, preserving fiber bundle integrability compels the wavepacket core to translate coherently rather than undergo decohering scattering. This suppresses effective inertial resistance toward zero and establishes a testable, parameter-free framework.
Category: High Energy Particle Physics
[4] viXra:2611.0022 [pdf] submitted on 2026-11-07 23:49:41
Authors: Osvaldo F. Schilling
Comments: 16 Pages.
The analysis of tabulated data for all baryons of the octet and decuplet reveals that, due to quantum interference of closed current paths in the femtometer scale: The masses of spin ½ baryons, in proton mass-units, are simple periodic functions of their magnetic moments, in nuclear magneton-units. The analysis shows that currents have either a simple ring form ( the neutron case) or a closed winding shape( the proton case), depending on the amount of magnetic flux enclosed/linked by the current. We argue that the stability of the proton is promoted by this particle winding currents ability to enclose/link a total integer (three) number of magnetic flux quanta, something not achieved by the neutron in a planar ring current path, which only links but does not enclose enough flux.
Category: High Energy Particle Physics
[3] viXra:2611.0018 [pdf] submitted on 2026-11-06 21:13:51
Authors: Ahmed Ali
Comments: 5 Pages.
We consider an SU(3)dark gauge theory with three flavours of heavy dark quarks of mass M_Q ∼ 10^13—10^15 GeV, neutral under all Standard Model gauge groups. The theory is assumed to undergo a first-order confinement transition at T_c^dark ≈ 10^15 GeV—a phenomenological input, not a first-principles result, carrying a ±50% theoretical uncertainty from the bag-model approximation in analogy with the Columbia-plot first-order region of QCD at heavy quark masses. We compute the resulting stochastic gravitational-wave (GW) background, finding that acoustic sound waves dominate by two orders of magnitude over bubble collisions and magnetohydrodynamic turbulence after the finite sound-wave lifetime suppression Υ ≈ 0.05 is applied. At the benchmark parameters—latent heat fraction α_PT = 0.1, dimensionless inverse transition duration β/H* = 100, and bubble wall velocity v_w = 0.8—the composite peak falls at f_* ≈ 1.65 mHz with Ω_GW^peak h^2 ≈ 10^(-8), and the sub-peak slope Ω_GW ∝ f^3 follows from causality independently of the phase-transition parameters. Under the assumption that the signal is present and that LISA achieves its projected sensitivity, four years of observation would yield a signal-to-noise ratio SNR ≈ 8.5, with a ±18% systematic uncertainty from the sound-wave lifetime calibration already absorbed into the quoted value. A Fisher analysis suggests that the peak frequency and amplitude could be recovered to approximately 15% and 25% respectively, which would constrain the dark confinement scale Λ_dark to within a factor of two—assuming the one-loop dimensional-transmutation relation holds. We note that pulsar-timing arrays, CMB spectral distortions, and direct-detection searches test the same parameter space from different directions; whether they can be combined into a joint exclusion is a question we leave to future work.
Category: High Energy Particle Physics
[2] viXra:2611.0011 [pdf] submitted on 2026-11-03 11:10:18
Authors: Xincai Luo
Comments: 14 Pages. DOI: https://doi.org/10.5281/ZENODO.23898588
We present a first-principles derivation of the Higgs boson mass, electroweak coupling constants, strong coupling constant, and Newtonian gravitational constant, based on our fundamental particle spin model. We demonstrate that the spin angular momenta of fundamental particles arise from the circular motion of their fundamental charges (FCs). The reduced energy generated by the interactions of the FCs in a fundamental particle spread out as wave with wavelength equivalent to the speed of light divided by the frequency of the circular motion. While the motion of the FCs in a fundamental particle that generates the spin angular momentum is circular, the corresponding wave propagation is linear. For the linear distance of this wave to equal the diameter of the interaction sphere, the system's energy must be multiplied by π. In the case of the weak interaction, this energy corresponds to the sum of the rest energies of the W+, W-, and Z0 bosons that mediate the interaction, the vacuum expectation value, or twice the rest energy of a Higgs boson. This provides a theoretical foundation for the non-zero vacuum expectation value of the Higgs field and yields equations for the electroweak coupling constants and the Higgs boson mass, allowing their derivation without relying on experimental data. For the strong interaction, the system's energy is π times the energy of a quark within a charged pion. Based on this energy, we determine the strong coupling constant at zero momentum transfer, quantitatively explaining the large difference in strength between the electromagnetic and strong interactions. For gravity, we derive the gravitational constant from the relative magnitudes of fundamental particle masses. The resulting theoretical coupling constants exhibit strong agreement with experimental values, and our accurate prediction of a Higgs boson mass of 125.5 GeV/c² further validates the model.
Category: High Energy Particle Physics
[1] viXra:2611.0008 [pdf] submitted on 2026-11-02 14:15:43
Authors: Ervin Goldfain
Comments: 25 Pages.
High energy theory has not produced a single experimentally confirmed prediction beyond the Standard Model in roughly fifty years. This essayargues that this stagnation is no longer only a scientific problem but an institutional one.
Category: High Energy Particle Physics
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