Directional Phase Effects in Coherent Light Propagation

Title: v.2Directional Phase Effects in Coherent Light Propagation(Rachel Theory – Dual Network Framework, v2) Author:Shlomi Ryan Abstract:This work presents a preliminary extension of the Rachel Theory (RT), a dual-network framework describing physical reality as an interaction between a fixed structural lattice and a dynamic network of oscillatory modes. We investigate light propagation within this framework using a series of computational simulations (v6–v8b), focusing on the emergence of direction-dependent and weak frequency-dependent effects. The results demonstrate a clear separation between two mechanisms: (1) a geometric contribution arising from discrete lattice traversal, producing a symmetric angular signature with a maximum near 45°, and (2) a secondary frequency-dependent modulation, in which higher-frequency modes exhibit a slightly enhanced accumulated interaction along identical paths. Importantly, the frequency-dependent effect remains small and does not disrupt the underlying geometric structure. This is consistent with the RT assumption that photon–lattice interactions are weak, cumulative, and only become significant under extended propagation distances or strong field conditions. Based on these results, a testable experimental configuration is proposed, involving coherent laser beams propagating at multiple angles through a region of strong, oriented magnetic field. The experiment aims to detect subtle, angle-dependent variations in phase, interference, or effective propagation behavior. This work does not replace existing physical models, but introduces a falsifiable framework that may be explored under controlled laboratory conditions.