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May 3, 20260 citationsOpen Access

Quantum-Resonance Lattice Theory: A Conceptual Pre-Geometric Model of Matter Emergence via Topological Collapse

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IDIvan Davidenko

Key Points

  • This research aims to propose a model explaining how elementary particles emerge from a lattice structure.
  • Developed the Quantum-Resonance Lattice model based on a three-dimensional cubic lattice.
  • Formulated the Hamiltonian and calculated cell multiplicities for fundamental particles.
  • Evaluated information density in relation to the Bekenstein–Hawking bound.
  • Introduced a spectral parameter λ₀ = 766.490 nm with an energy approximation of 1.6176 eV.
  • Presented several experimentally testable predictions based on the model.
  • Compared findings with established theories including string theory.

Abstract

This preprint develops the Quantum-Resonance Lattice (QRL) model, proposing that elementary particles emerge through the topological collapse of a three-dimensional cubic lattice of filamentary multi-channel waveguides. A fundamental spectral parameter λ₀ = 766. 490 nm (Eᵣes ≈ 1. 6176 eV) is introduced. The Hamiltonian is formulated, cell multiplicities for the electron, proton, and neutron are calculated and discussed, and the model is compared with string theory. Information density at collapse is evaluated in relation to the Bekenstein–Hawking bound. Several experimentally testable predictions are presented.

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Cite This Study

Ivan Davidenko (2026) studied this question.

synapsesocial.com/papers/69f6e6478071d4f1bdfc6e81https://doi.org/10.5281/zenodo.19956974
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