Defect–Fiber Spectral Geometry and Cosmological Freeze-Out: A Unified Framework for Higgs, Flavor, and Neutrino Structure

This work presents a defect-fiber unified framework in which the Higgs sector, flavor hierarchies, neutrino suppression, and cosmological freeze-out are interpreted as low-energy readouts of a discrete spectral structure supported on cosmological defects. The framework is built from a temperature-dependent order-parameter field generating defects whose worldvolume carries an internal asymmetric fiber. The internal fiber supports a discrete spectrum whose lowest visible weak-doublet mode naturally corresponds to the Higgs sector, while higher modes organize flavor hierarchies. A unified bridge kernel defined along the internal fiber generates fermion mass matrices, mixing structures, and CP phases across quark, charged-lepton, and neutrino sectors. The framework also introduces a cosmological freeze-out chain in which the Standard-Model-like structure emerges as a residual low-energy readout after defect formation, internal fiber stabilization, internal splitting, and Higgs softening. Within this construction, Higgs physics, flavor organization, neutrino suppression, and cosmological phase evolution are treated as different manifestations of a single defect-supported spectral geometry. The model provides an executable toy pipeline linking cosmological parameters to low-energy observables including electroweak masses, CKM mixing, PMNS mixing, and CP hierarchy. Although not yet a complete fundamental theory, the framework defines a constrained and testable route toward a unified geometric organization of Higgs, flavor, neutrino, and cosmological freeze-out physics.