The Geometric Attenuation of the Planck Scale

Title: The Geometric Attenuation of the Planck Scale: Resolving the Hierarchy Problem and Reclassifying the Higgs Boson via the ΩGLR Topological Substrate Author: Marco Lindenbeck Description: The 2012 discovery of the 125 GeV Higgs boson is widely accepted as confirmation of a continuous scalar field responsible for electroweak symmetry breaking and inertial mass. However, modeling the vacuum as a continuous fluid generates severe naturalness paradoxes, most notably the Hierarchy Problem, wherein quadratic divergences dictate the scalar mass should naturally approach the Planck scale (MP ≈ 10¹⁹ GeV). Standard Quantum Field Theory (QFT) relies on extreme parameter fine-tuning (10⁻³⁴) to mathematically bridge this gap. This paper applies the discrete ΩGLR (Omega Grounded Light Reality) framework to mathematically resolve the Hierarchy Problem and dismantle the necessity of a continuous scalar fluid. Methodology & Findings: By replacing the continuous vacuum with a pre-tensioned, discrete dodecahedral metric (κ=50), this paper demonstrates that inertial mass is not imparted by fluidic drag, but is the strict manifestation of computational latency (Topological Drag) incurred by routing compiled data knots across a discrete grid. Using strictly fundamental SI constants (, c, G) and the 10 degrees of freedom of the metric tensor, the ΩGLR framework calculates the following from first principles, with zero free parameters: The 125 GeV Resonance: The paper mathematically proves the Higgs signature is not a fundamental boson requiring fine-tuning, but the exact deterministic geometric attenuation of the Planck Mass across an uncompiled spatial routing hub (MP / 50¹⁰). The Hierarchy Problem Resolved: The continuous Planck scale is definitively bottlenecked by the discrete topological substrate, completely eliminating the need for 10⁻³⁴ parameter fine-tuning. The Illusion of Decay: The 10⁻²² second lifespan of the Higgs is mathematically reclassified via Topological Phase Equivalence. It is not the radioactive decay of a massive particle, but the strict deterministic clearance latency required to flush an unwound acoustic resonance across a 50-node local metric cell at the speed of light. Conclusion: The Large Hadron Collider did not discover a fundamental particle that grants mass; it engineered a localized buffer overrun, empirically confirming the absolute computational bandwidth and spatial clearance limits of the ΩGLR topological substrate.