Theoretical modeling demonstrates geometric fiber resonance matching multiscale matter measurements, suggesting a topological framework for fundamental physical structures.
Key Points
To formulate and quantitatively evaluate a geometric framework based on Möbius topological fibers for describing matter structures across multiple physical scales.
Modeled stable matter configurations through the coherent resonance of Möbius fibers distributed on a reference plane with an intrinsic torsion angle of θ₀ = 90.4732°.
Performed analytic derivations and numerical calculations validated against five precision experimental measurements spanning hadronic, atomic, optical, and astrophysical systems.
Achieved sub-percent level or better agreement with precision experimental measurements across all four tested physical domains.
Provided unified descriptions of physical confinement, quantization, and chirality, while identifying operational limits in high-energy scattering and renormalization.