... ל: RT Quantum v4c — Localization Suppression in the Absence of

Shlomi Ryan

Published May 9, 2026• 0 citations

Abstract

RT Quantum v.4c explores emergent localization behavior within the framework of Dual Network Theory, the Law of Compromise, and the Law of Periodicity (Rachel Theory – RT).The simulations investigate whether quantum-like localization behavior can emerge from structured synchronization dynamics inside a shared substrate (the Fixed Network), rather than from explicitly imposed collapse mechanisms.The current simulation sequence includes:coherence-regime transition scans,ablation tests,symmetry controls,no-center-lock controls,photon-count scaling scans,noise robustness analysis,weakness-strength regime comparisons,and final coherence-transition control tests.Importantly, the simulations do not impose:fixed collapse targets,predetermined winning basins,explicit particle-mode switching,or forced center localization.Instead, localization-like behavior emerges through:synchronization-dependent dynamics,probabilistic structural reorganization,memory accumulation,conflict amplification,threshold-like regime transitions,and progressive reduction in accessible survivable configurations.The strongest localization behavior appeared specifically in simulations where coherence-regime transitions were active, while corresponding control tests without the transition mechanism failed to reproduce comparable localization strength.These results do not constitute experimental proof of RT.However, the simulations demonstrate internally consistent, nontrivial emergent behavior that appears systematically dependent on specific RT-inspired dynamical mechanisms rather than arbitrary randomness alone.This work is part of an ongoing RT research series.Earlier RT papers include additional theoretical background and proposed experimental directions: https://doi.org/10.5281/zenodo.20045304⁠�Framework: Dual Network Theory, the Law of Compromise, and the Law of Periodicity (Rachel Theory – RT)© Shlomi Ryan, 2026CC BY-NC-ND 4.0Non-commercial use with attribution only.

DOI: 10.5281/zenodo.20099753

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