The Unified Theory of Absolute Spatial-Temporal Geometric Tension

Abstract

I introduce a unified framework wherein classical gravitation, Dirac matter fields, and gauge forces are coupled to a bounded scalar tension field, W, through a single macroscopic action principle. By defining a bounded elastic potential governed by a modified logarithmic barrier, I demonstrate that the model naturally enforces a physical yield barrier, mathematically precluding the formation of physical spacetime singularities. At the micro-scale, a first-order Taylor expansion of the localized fabric strain profile yields a dynamic, observer-dependent effective action parameter, mapping a variable Planck constant, ℏ_eff, directly to the coordinate-momentum commutation relation. Variational derivatives with respect to the metric tensor and scalar field are explicitly evaluated to define the tension-modified stress-energy tensor, T_μν^total, and establish exact local conservation symmetries. Finally, I provide the limiting conditions under which the localized quantum horizon collapses into an absolute, continuous deterministic reality as the observer processing bandwidth approaches infinity, offering distinct, falsifiable endpoints for experimental validation.