qHIGT: Dimensional Projections and Ontological Foundations for Holographic Information Gravitation Theory
Abstract
We present the Quantum Holographic Information Gravitation Theory (qHIGT), an ontological extension to HIGT, addressing the fundamental question: “Why is there something rather than nothing?” By formalizing the Buddhist concept of Dharmadhātu as infinite-dimensional Hilbert space and recognizing complex numbers as the mathematical gateway to potentiality, we demonstrate that the apparent “nothingness” (0) and infinity (∞) are mathematically identical. This onto-theory resolves the substrate paradox through dual-aspect monism, wherein organization and geometry constitute inseparable perspectives on fundamental reality. We establish photons as manifestations of pure information, demonstrate mass emergence from organizational density Φ via 𝑚 = 𝜅Φ (yielding 𝐸 = 𝑚𝑐²), and generate testable predictions validated empirically: galactic morphological complexity correlates with dark matter distribution (𝑟 = +0.42, 𝑝 < 10−300, 𝑁 = 261,387 galaxies). We derive the fine-structure constant 𝛼⁻¹ = 137.036 (precision 0.24 ppm), lepton masses with generation corrections (𝑚𝜇: 0.5 ppb, 𝑚𝜏: 0.13%), electroweak boson ratio 𝑚𝑊/𝑚𝑍 (1.5% error), and running 𝛼(𝐸) (1% precision 0-1 TeV) from pure Fibonacci golden cascade with zero adjustable parameters—the first successful ab initio derivations in physics history (Appendix D). We predict 51 hadron radii from universal projection factors and QCD corrections (Appendix E), and demonstrate quantum uncertainty, decoherence, and Bell inequality violations emerge naturally from deterministic hyperdimensional dynamics projected to incomplete 3D observation. This provides the first rigorous onto-theory: an explanation not merely of how the universe functions, but why existence occurs rather than non-existence—grounded in derivable constants that emerge naturally from the geometry of reality itself.Note: This framework has been extended by Fractal Mechanics
Fields of Study & Subjects
Biofield Effects and Biophysics
Paranormal Experiences and Beliefs
Statistical Mechanics and Entropy
Publication details
- Journal / source
- Zenodo (CERN European Organization for Nuclear Research)
- Publication date
- 3 January 2026
- Language
- EN
- Document type
- Preprint