Paper T4: Entanglement and Decoherence via Triadic Spin
Year: 2025
Type: article
Abstract: Paper T4 develops a mechanistic account of entanglement and decoherence in Holosphere Theory. The paper models a particle as a triadic orbital structure organized by a Two-Defect Ring, or TDR. The TDR provides a spinor-style boundary: a sign flip after a 2pi cycle and full closure after a 4pi cycle. Within this structure, one rail-aligned mode carries long-range coherence, while two tangential sideband modes are more sensitive to local strain and decohere first. The paper connects local threshold failure to global SU(2) geometry. On S3, the real overlap is C(Delta) = cos(Delta/2), with dark-node calibration points at Delta = pi and Delta = 3pi and revival after the 4pi cycle. Locally, the same event is described as angular misalignment reaching the gate lambda = pi, with an operational tolerance set by calibration. Collapse is therefore modeled not as a stochastic wavefunction postulate, but as threshold breach followed by local angular-strain redistribution on S2. The rail density used for observable weighting is selected from classical symmetry. Under octahedral symmetry with TDR rail pinning, the lowest directional mode is proportional to sin theta cos phi, and its square gives the calibration density sin squared theta cos squared phi. The paper treats this rail density, the node-revival structure, and operational no-signalling as baseline calibration requirements rather than as uniquely Holosphere-specific evidence. Holosphere-specific claims are separated into a novelty panel: fixed-U path memory, orientation-dependent decoherence, threshold plateaus, partial recoherence after rail realignment, and rail-sideband collapse asymmetry. The paper gives preregistered-style KPIs, timing gates, null models, and experimental roadmaps for photons, NV centers, and superconducting qubits. Its central contribution is to turn entanglement and decoherence from interpretive language into an auditable threshold-and-rail framework with clear calibration checks and falsifiable follow-up tests.
Author: Sarnowski, Michael
Language: English
Subfield: Atomic and Molecular Physics, and Optics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W6893384527
FWCI:
Cites:
Cited by:
Related to: