A Superdimensional Dual-covariant Field Theory
Yaroslav Derbenev

TL;DR
This paper develops a novel unified field theory combining quantum fields and general relativity using covariant differential calculus, introducing dual state vectors, hybrid tensors, and a dynamic connection to describe matter and interactions.
Contribution
It introduces a superdimensional dual-covariant framework with hybrid tensors and a dynamic connection, unifying quantum and gravitational theories without predefined manifold geometry.
Findings
Derivation of covariant Euler-Lagrange equations for matter and geometry.
Introduction of hybrid curvature form as a covariant derivative of the dynamic connection.
Marking the breaking of the superposition principle in quantum field theory.
Abstract
An approach to a Unified Field Theory (UFT) is developed as an attempt to establish unification of the Theory of Quantum Fields (QFT) and General Theory of Relativity (GTR) on the background of a covariant differential calculus. A dual State Vector field (DSV)consisting of covariant and contravariant N-component functions of variables of a N-dimensional unified manifod (UM)is introduced to represents matter. DSV is supposed to transform in a way distinct from that of the differentials of the UM variables. Consequently, the hybrid tensors and a hybrid affine tensor (Dynamic Connection, DC) are introduced. The hybrid curvature form (HCF) is introduced as a covariant derivative of DC. A system of covariant Euler-Lagrange (EL) equations for DSV, DC, and a twin couple of the triadic hybrid tensors (Split Metric, SM)is derived. A scalar Lagrangian form is composed based on a set of principles…
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Taxonomy
TopicsNumerical methods for differential equations · Algebraic and Geometric Analysis · Geophysics and Sensor Technology
