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Causal Information Theory: Resolving the EPR Paradox and Bell's Inequality via Holographic Boundary Conditions

Sandner, Daniel

Published Dec 24, 2025• 1 citation
Publisher

Abstract

Quantum Entanglement presents a paradox: measurements appear to influence distant systems instantaneously, violating the relativistic speed limit $c$. Standard interpretations accept "Non-Locality" as a fundamental feature of nature. Causal Latency Theory (CLT) proposes an alternative: Boundary Locality. We posit that 3D space is a holographic projection of a valid 2D Causal Horizon for fundamental forces. Entangled particles are not spatially connected links in the bulk, but distinct projections of the same addressable bit on the Horizon. We demonstrate that while information propagation through the bulk vacuum incurs a latency $\Delta t = L/c$, the path along the horizon surface is a null geodesic where proper time $\Delta \tau = 0$. This reinterprets Bell Inequality violations not as superluminal signaling, but as geometric shortcuts via the boundary. We validate this via simulation, predicting that entanglement fidelity will degrade as local acceleration (and the associated Rindler Horizon) intersects the correlation length. We propose the Centrifuge Bell Experiment and the Cosmic Switch satellite test to detect the anisotropy of quantum correlations relative to the Causal Rest Frame.

DOI
10.5281/zenodo.18046615

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