Black Holes as Topological Nulls in a Layered Spinor Bose-Einstein Cosmology: A Quantum Superfluid Model for Emergent Spacetime

We present the Layered Spinor Bose-Einstein Cosmology (LSBEC) model, where the universe is a stratified quantum field structure—a multi-component, low-temperature Bose-Einstein condensate (BEC) with spin degrees of freedom. Building on emergent gravity and the holographic principle, we derive a first-principles connection between BEC topological defects and gravitational phenomena. Black holes are modeled as quantized topological nulls (stable vortex structures) in this cosmic superfluid, eliminating singularities via finite-density vortex cores. The model predicts a discrete black hole mass spectrum, modified Hawking radiation, and additional gravitational wave polarizations (scalar, vector, and breathing modes). Using Bayesian analysis, we validate LSBEC against GW250114 data (Mf obs = 52.0 ± 1.0M⊙), achieving a refined prediction of Mf LSBEC = 53.2M⊙ within 1.2σ. The framework proposes to bridge quantum and gravitational physics via emergent spacetime geometry, offering falsifiable predictions testable with next-generation observatories like LISA and the Event Horizon Telescope (EHT).