General Relativity, Maxwell's Electrodynamics, and the Foundations of the Quantum Theory of Gravitation and Matter
Jay R. Yablon

TL;DR
This paper extends General Relativity with electric-magnetic duality to include non-Abelian fields, develops new energy tensors from the field strength tensor, and proposes a framework to geometrize quantum physics through non-linear equations.
Contribution
It introduces novel energy tensors based on the field strength tensor and links classical gravity with quantum solutions via a unified geometric approach.
Findings
Development of energy tensors with non-vanishing trace from F^uv
Spacetime metric constrained by third-order equations involving Bianchi identity
Quantum solutions derived from the common appearance of F^uv in tensors
Abstract
The formalism of electric - magnetic duality, first pioneered by Reinich and Wheeler, extends General Relativity to encompass non-Abelian fields. Several energy Tensors T^uv with non-vanishing trace matter are developed solely as a function of the field strength tensor F^uv, including the Euler tensor, and tensors for matter in flux, pressure in flux, and stationary pressure. The spacetime metric g_uv is not only a solution to the second-order Einstein equation based on T^uv, but is also constrained by a third-order equation involving the Bianchi identity together with the gravitational energy components kappa_u for each T^uv. The common appearance of F^uv in all of the T^uv and kappa_v makes it possible to obtain quantum solutions for the spacetime metric, thereby geometrizing quantum physics as a non-linear theory.
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Taxonomy
TopicsRelativity and Gravitational Theory · Cosmology and Gravitation Theories · Quantum and Classical Electrodynamics
