Beyond Copenhagen The 7D Torus Electron

Ata Khalid

Published Aug 28, 2026• 0 citations

Abstract

We present a strictly local, deterministic, and geometric solution to the quantum measurement problem and the Einstein-Podolsky-Rosen (EPR) paradox using the seven-dimensional torus electron model. We demonstrate that the wavefunction is not an abstract probability wave, but a physical spatial projection of a localized seven-dimensional electromagnetic wave packet, transforming the classic double-slit experiment into a deterministic flow of self-confined light. We show that "wavefunction collapse" is not a non-physical projection, but a highly non-linear, waveguide-deforming physical collision. Utilizing the non-associative octonionic algebra of a compactified seven-torus, we demonstrate that the physical impact of a measurement probe deforms the microscopic boundaries of the manifold, triggering a localized topological shear stress that forces the extended, double-wound photon wave packet to focus and "snap" to a localized region to conserve momentum. Furthermore, we resolve the EPR paradox by showing that spatially separated, entangled wave packets remain physically adjacent through the compactified higher-dimensional spatial fabric (on the scale of ten to the power of minus thirty-five meters), allowing sub-luminal phase matching in seven dimensions that manifests as instantaneous, non-local correlations in three dimensions, thereby bypassing Bell's theorem.

DOI: 10.5281/zenodo.22148635

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