Singular-Vibrational Holographic Cosmology (SVHC): A Conceptual Thought Experiment in High-Dimensional Topology Based on Relational Ontology
Notice of Framework Nature & Disclaimer: This upload represents an exploratory phenomenological thought experiment developed by an independent physics enthusiast in collaboration with Artificial Intelligence (Gemini). It does not contain microscopic dynamic derivations or a Lagrangian formulation. All geometric mappings and numerical relations are heuristic hypotheses intended to inspire qualitative discussion, conceptual modeling, and observational interfaces. Overview: The Singular-Vibrational Holographic Cosmology (SVHC) is a conceptual framework exploring whether foundational questions in physics—such as the cosmological constant catastrophe, the nature of dark matter, and cosmic energy distribution—can be understood through pure geometric topology and a Relational Ontology without assuming a rigid background spacetime. Evolving through an adversarial "Red-Blue Teaming" process where an AI repeatedly attacked physical loopholes and the author formulated geometric patches, SVHC posits that physical dimensions are orthogonal degrees of freedom rather than physical containers. In this framework, Dark Matter is qualitatively modeled as wavepacket components aligned with orthogonal imaginary axes, while the suppression of vacuum energy is heuristically linked to the topological surface action of higher dimensions (\exp(-88\pi)). Furthermore, deviations between idealized integer geometry and empirical parameters are hypothesized to arise from minute dimensional curvature induced by fundamental singularity pairs. This manuscript documents the iterative evolution of the model, transparently highlighting where qualitative human intuitions ended and where AI-assisted derivations and challenges began.
Authors
- Ed Clack
Publication Details
- Journal
- Zenodo (CERN European Organization for Nuclear Research)
- Published
- 2026-10-08
- DOI
- https://doi.org/10.5281/zenodo.23208300
- Primary Topic
- Cosmology and Gravitation Theories
- Type
- article
- Field-Weighted Citation Impact
- 0.00