Entropic Scalar EFT - From Entanglement Microstructure to Gravity and Cosmic Structure
Abstract
We propose that the vacuum has a finite local entanglement capacity and that matter consists of localized defects of that substrate. General relativity emerges as the low-energy capacity geometry rather than being assumed independently. A minimal tetrahedral microstructure determines, with no free parameters, all coefficients of a covariant scalar EFT through a closed ultraviolet-to-infrared chain. The theory recovers Newtonian gravity, fixes the galactic acceleration scale, produces a specific radial-acceleration law, and retains no gravitational slip with standard post-Newtonian values. Newton's constant is independently derived through two routes yielding the same scale. Extensions cover causal transport, a cosmological sector addressing the Hubble tension, a uniquely determined strong-field completion, and a Many-Pasts interpretation recovering Born-rule quantum mechanics with an entropic arrow of time.
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Academic Categories
Cosmology
Humanities > Philosophy > Metaphysics > Cosmology
General Relativity
Natural Sciences > Physics > Relativity > General Relativity
Quantum Field Theory
Natural Sciences > Physics > Quantum Mechanics > Quantum Field Theory
Quantum Information
Natural Sciences > Physics > Quantum Mechanics > Quantum Information
Version History
Added general relativity derivation using the existing theory substrate properties.
Restructured the paper for clarity and improved the derivation structure.
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