Theoretical study uncovers the emergence of spacetime and particle masses from 3D topological solitons, indicating a deterministic origin for quantum mechanics and general relativity.
Key Points
Formulate a deterministic, bottom-up topological field framework that derives the spacetime metric, gauge charges, and invariant rest mass directly from a vacuum state.
Modeled structural scale transitions via exponential topological bifurcation using the non-linear Faddeev-Skyrme Lagrangian.
Applied 't Hooft's Chiral Anomaly Matching condition to subnucleonic confinement scales to model symmetry breaking and protection.
Decoupled the quantum wavefunction into real structural amplitude and hydrodynamic phase variables to analyze particle trajectories.
Demonstrated that fundamental fermions emerge as quantized 3D topological solitons (Hopfions), with unbroken chiral symmetry protecting the electron mass while non-Abelian curvature drives proton mass generation.
Reinterpreted W gauge bosons as topological activation thresholds for chiral inversion rather than fundamental elementary particles.
Showed that Pauli exclusion arises as geometric shear repulsion between knots, which coarse-grains directly into general relativistic spacetime curvature.