Quantum Vacuum: The Structure of Empty Space-Time and Quintessence with Gauge Symmetry Group $SU(2)\otimes U(1)$
Ashot S. Gevorkyan

TL;DR
This paper models the quantum vacuum as a structure formed by massless spin-1 particles called hions, generated through stochastic Yang-Mills equations, revealing insights into dark energy and space-time engineering.
Contribution
It introduces a novel stochastic Yang-Mills framework for forming massless spin-1 particles and explores their role in quantum vacuum structure and dark energy.
Findings
Massless spin-1 particles (hions) form stable 2D topological structures.
Scalar bosons from entangled hions form Bose-Einstein condensates.
Quantum vacuum may function as a natural quantum computer with dark energy implications.
Abstract
We consider the formation of structured and massless particles with spin 1, by using the Yang-Mills like stochastic equations system for the group symmetry without taking into account the nonlinear term characterizing self-action. We prove that, in the first phase of relaxation, as a result of multi-scale random fluctuations of quantum fields, massless particles with spin 1, further referred as \emph{hions}, are generated in the form of statistically stable quantized structures, which are localized on 2 topological manifolds. We also study the wave state and the geometrical structure of the \emph{hion} when as a free particle and, accordingly, while it interacts with a random environment becoming a quasi-particle with a finite lifetime. In the second phase of relaxation, the vector boson makes spontaneous transitions to other massless and mass states. The problem…
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Taxonomy
TopicsQuantum Mechanics and Applications · Noncommutative and Quantum Gravity Theories · Quantum Electrodynamics and Casimir Effect
