Rotational Superradiance as a Mechanism for Color Connement in QCD: A Topological Vortex Framework

We propose a novel topological mechanism for color connement in Quantum Chromodynamics (QCD), wherein the conning dynamics arise from rotational superradiance associated with a vector vortex structure formed between quarks and gluons. Rather than treatingconnement as a static property of the gluon eld, we model it as the dynamical result ofsuperradiant pumping of a topological vortex mode. Observable interactions between colorcharges are interpreted as expressions of the vortex's entanglement capacity speci cally,how much quantum coherence can be sustained within the rotating frame.This framework uni es (i) asymptotic freedom at short distances with superradiancequenching at the vortex core, (ii) hadronization as a coalescence-instability cascade triggeredwhen vortex entanglement saturates, and (iii) deconnement transitions in the quark-gluonplasma as vortex dissolution under extreme density/temperature. The model is falsi able viageometric-phase signatures in lattice-QCD simulations and anomalous entanglement distribution in high-energy scattering data. We also connect this framework to the Morphology ofVacuum Condensate (MVC) hypothesis, showing that connement thresholds map naturallyto critical density regimes in brane-world cosmology.Keywords: Color connement, superradiance, quantum vortex, entanglement, topological transition, QCD