Functional Specification: Discrete 5D Substrate (Release 1.04)

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Authors: J.
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Abstract

DISCLAIMER: Note from the Author: This was a premature release. The Framework is in a process of constant refinement. As of March 2026, i personally consider everthing i published here a somewhat embarrassing premature mistake. Uploading it here was and still is an act of transparency about my mistakes. I suggest to ignore this or to proceed with caution, at least. Thank you. //The following text is LLM generated! Functional Specification: Discrete 5D Substrate (Release 1.04) Abstract:This specification formalizes a discrete informational framework for spacetime, modeled as a 5-Dimensional manifold. By defining the fundamental requirements for state-resolution within this manifold, the paper derives key physical constants as structural fixed points. It characterizes several persistent discrepancies in LHC data—such as the W-boson mass shift and model-agnostic anomaly triggers—not as instrumental noise, but as predictable structural signatures of a discrete spacetime geometry. Key Technical Highlights: Structural Derivation of α-1: Provides a mathematical derivation of the inverse fine-structure constant (α-1 ≈ 137.03597) based on the ratio of addressable matter capacity to system overhead. Resolution of the W-Boson Discrepancy: Proposes a "synchronization lag" model to explain the historical 76 MeV shift observed in W-boson mass measurements as a byproduct of manifold resolution logic. Systematic Diagnostic (Δj): Identifies a recurring +2.7% jitter (1/37) in high-energy anomaly triggers, identifying it as a fundamental resolution artifact of the underlying 5D-to-3D projection. Discrete Stability Layers: Maps matter stability points and resonant peaks to a recursive mathematical sequence, offering a unified explanation for the Top-Quark mass and other energy thresholds. Blind Prediction:The specification concludes with a testable, blind prediction for a stable Gaussian resonance at 2,544.38 GeV (2.544 TeV). Validation of this peak at the March 2026 Moriond Conference serves as the primary verification for the manifold’s defined resolution logic. Falsification Criteria:Explicit falsification parameters are provided (Section 7.1). The framework is considered falsified if upcoming publications demonstrate a featureless background at 2.544 TeV or the absence of the predicted +2.7% systematic jitter.

Fields of Study & Subjects

Noncommutative and Quantum Gravity Theories Advanced Mathematical Theories and Applications Relativity and Gravitational Theory

Publication details

Journal / source
Zenodo (CERN European Organization for Nuclear Research)
Publication date
8 February 2026
Language
ENC