Modeling a Composite Horizon-Free Non-Singular Alternative to Primordial Black Holes Using Clustered Vector Boson Fields

This work presents a novel, multi-scale configuration framework modeling a new class of compact celestial objects: a macroscopic, thick-walled Topological Soliton Shell built from a lattice of phase-locked Bose-Einstein Condensate (BEC) micro-cores. Utilizing massive, sterile, spin-1 Proca vector bosons, the model introduces localized thermodynamic self-relocalization loops to resolve the classical singularity boundaries associated with primordial black holes (PBHs). A custom numerical finite-difference solver evaluates the quasi-static instantaneous phase profiles under an anisotropic hydrostatic balance condition, establishing a stable nodal mass window bounded by a kinetic dispersion floor and a phase dissociation ceiling. Observational signatures trackable by modern observatories (JWST, Euclid, EHT) are parameterized, detailing characteristic caustic blurring in microlensing curves and distinctive internal volumetric silhouettes as testable cosmological alternatives to singular gravitational collapse.