The Propagating Instruction Set

Title: The Propagating Instruction Set: Resolving Wave-Particle Duality and the Photoelectric Buffer Overrun via the Absolute Bandwidth Invariant Author: Marco Lindenbeck Description: For over a century, theoretical physics has been constrained by wave-particle duality, relying on the probabilistic Copenhagen Interpretation to explain the behavior of light. This manuscript permanently resolves the duality crisis by formally excising the photon as a fundamental point-particle, utilizing the discrete $\Omega$GLR (Omega Grounded Light Reality) framework. Light is rigorously redefined as uncompiled Informational Load ($\mathcal{I}$-phase data)—a 1-dimensional propagating instruction set routing natively across a pre-tensioned, finite-capacity $\kappa=50$ topological substrate. By translating standard quantum electrodynamics into bare-metal Substrate Logistics, this paper demonstrates that wave-particle duality is merely an artifact of continuous mathematics attempting to process discrete network data transmission. Light behaves continuously in transit as it routes across metric filaments, and discretely upon impact because structural nodes process data in quantized topological blocks. Furthermore, Einstein’s Photoelectric Effect is completely re-derived. It is not a probabilistic kinematic collision, but a deterministic IT "Hardware Buffer Overrun" governed strictly by the localized Absolute Bandwidth Invariant ($\Omega \le 1.0$). By reducing Planck's constant ($h$) to a pure geometric data bitrate and natively deriving the visible light spectrum from macroscopic fault-line resonance, this paper permanently demystifies optical dispersion and optical latency, establishing a strictly classical, deterministic architecture for quantum optics.