Electroweak mixing and the generation of massive gauge bosons

A simplified extension of electroweak mixing using off-diagonal mixing of scalar (higgs), vector (electroweak) and tensor (spin-2) gauge fields with the EW electromagnetic field removes the degeneracy of the multiple gauge boson states. Mixing in this manner provides unique energy solutions of the multiplets and the masses of the massive neutral gauge boson states. The matrices are solved using the best fit value of the mixing angle, sin(2) theta(w) = 0.23212(44), the experimental masses of the W and Z bosons, and the massless photon and graviton. This analysis predicts the following mass values: Higgs singlet (112.70 GeV), Higgs doublet (charged 169.54 GeV and neutral 218.91 GeV) and a residual massive neutral tensor gauge boson (8.085 GeV). The residual gauge boson is a good candidate for the dark matter particle, yielding from cosmological considerations Omega(darkmatter) =0.2710, Omega(baryon) =0.0315 and Omega(darkenergy) =0.6975.