Particle Pair Production in Cosmological General Relativity
Firmin J. Oliveira

TL;DR
This paper explores a 5-dimensional cosmological theory predicting particle pair production, linking vacuum energy, cosmic microwave background radiation, and fundamental constants to derive particle masses and properties.
Contribution
It introduces a novel particle production mechanism within Carmeli's 5D cosmological framework, connecting vacuum energy, CMB, and fundamental constants to particle mass calculations.
Findings
Particle mass m = tau c^3 / 4 G derived from theory.
Vacuum mass density rho_vac = -3 / (8 pi G tau^2).
CMB temperature related to hydrogen ionization energy.
Abstract
The Cosmological General Relativity (CGR) of Carmeli, a 5-dimensional (5-D) theory of time, space and velocity, predicts the existence of an acceleration a_0 = c / tau due to the expansion of the universe, where c is the speed of light in vacuum, tau = 1 / h is the Hubble-Carmeli time constant, where h is the Hubble constant at zero distance and no gravity. The Carmeli force on a particle of mass m is F_c = m a_0, a fifth force in nature. In CGR, the effective mass density rho_eff = rho - rho_c, where rho is the matter density and rho_c is the critical mass density which we identify with the vacuum mass density rho_vac = -rho_c. The fields resulting from the weak field solution of the Einstein field equations in 5-D CGR and the Carmeli force are used to hypothesize the production of a pair of particles. The mass of each particle is found to be m = tau c^3 / 4 G, where G is…
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