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February 22, 20260 citationsOpen Access

Arithmetic Quantum Kinematics Part III: Ground-State Topological Mass Generation, Geometric Spin, and Chiral Symmetry in the E7 Lattice

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EUEnder UYGUN

Key Points

  • To establish the geometric origin of the hadronic mass gap and Chiral Symmetry Breaking within the E7 lattice framework.
  • Developed a deterministic model for mass generation based on a Topological Action Penalty.
  • Utilized a Ground-State Topological Hamiltonian to analyze quarks in fractional space.
  • Investigated Lorentz anisotropy to gather geometric evidence of topological color confinement.
  • Demonstrated that the mass gap of ~6.72 arises from integrating electroweak bare masses.
  • Proved that pion's negligible core mass results from topological cancellation at the chiral limit.
  • Provided geometric proof supporting the theory of topological color confinement.

Abstract

This paper (Part III) establishes a deterministic, geometric origin for the hadronic mass gap and Chiral Symmetry Breaking within the E₇ lattice. We demonstrate that ground-state mass is fundamentally a dynamic "Topological Action Penalty" incurred as quarks traverse fractional space. By translating quantum spin into a geometric dot product of lattice nodes, we propose a Ground-State Topological Hamiltonian. In the exact chiral limit, this formulation reproduces Chiral Symmetry Breaking, proving the pion's negligible core mass is the result of exact topological cancellation. The mass ratio paradox is resolved by demonstrating that the experimental ~6. 72 mass gap emerges naturally when electroweak bare masses (m₁₀ₑ₄) are introduced, lifting the pion from a massless state while the proton remains dominated by its heavy topological core. Ultimately, analyzing macroscopic Lorentz anisotropy provides necessary geometric proof of topological color confinement, replacing continuous spacetime with rigid arithmetic geometry.

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Cite This Study

Ender UYGUN (2026) studied this question.

synapsesocial.com/papers/699a9e00482488d673cd451fhttps://doi.org/10.5281/zenodo.18712418
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