QM-2: Superposition and Interference from Multi-Path DI-Bit Summation on the 600-Cell Lattice

Thomas Lee Abshier

Published Jan 1, 2026• 0 citations

Abstract

Superposition and interference emerge from coherent summation of phase-carrying DI bits propagating along all available geodesics of the 600-cell lattice — the discrete Feynman path integral in CPP. Superposition and interference in Conscious Point Physics emerge from the coherent summation of phase-carrying Displacement Increment (DI) bits propagating simultaneously along all available geodesics of the 600-cell lattice --- the discrete Feynman path integral. Each DI bit emitted from source vertex s accumulates a deterministic geometric phase _k along path k, determined by the DI-bit velocity c = / and the local SSV potential. The total amplitude at detector vertex d is (d) = _k A_0 e^i_k,

DOI: 10.17605/osf.io/yt82e

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