Quantum-Resonance Lattice Theory: A Conceptual Pre-Geometric Framework for Matter Emergence via Topological Collapse in a Cubic Filamentary Waveguide Lattice

This preprint develops a conceptual pre-geometric model, the Quantum-Resonance Lattice (QRL), in which spacetime is represented as a three-dimensional cubic lattice of filamentary multi-channel waveguides. A fundamental spectral resonance parameter λ₀ = 766.490 nm is introduced, corresponding to a resonant quantum energy E_res ≈ 1.6176 eV. The Hamiltonian of the system is formulated, cell multiplicity for elementary particles is calculated, and the model is compared with string theory. Information density at collapse is evaluated relative to the Bekenstein–Hawking bound. Testable predictions are discussed.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-02
DOI
https://doi.org/10.5281/zenodo.19960693
Primary Topic
Biofield Effects and Biophysics
Type
article
Field-Weighted Citation Impact
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article

Quantum-Resonance Lattice Theory: A Conceptual Pre-Geometric Framework for Matter Emergence via Topological Collapse in a Cubic Filamentary Waveguide Lattice

Ivan Davidenko
Zenodo (CERN European Organization for Nuclear Research)
Biofield Effects and Biophysics
article

Quantum-Resonance Lattice Theory: A Conceptual Pre-Geometric Framework for Matter Emergence via Topological Collapse in a Cubic Filamentary Waveguide Lattice

Ivan Davidenko
article en

Abstract

This preprint develops a conceptual pre-geometric model, the Quantum-Resonance Lattice (QRL), in which spacetime is represented as a three-dimensional cubic lattice of filamentary multi-channel waveguides. A fundamental spectral resonance parameter λ₀ = 766.490 nm is introduced, corresponding to a resonant quantum energy E_res ≈ 1.6176 eV. The Hamiltonian of the system is formulated, cell multiplicity for elementary particles is calculated, and the model is compared with string theory. Information density at collapse is evaluated relative to the Bekenstein–Hawking bound. Testable predictions are discussed.

Zenodo (CERN European Organization for Nuclear Research)
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