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  "slug": "relativistic-topological-superfluid",
  "title": "Relativistic Topological Superfluid",
  "authors": [
    "Rowan Brad Quni-Gudzinas"
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  "abstract": "Standard cosmological models assume a static vacuum energy density, yet this premise conflicts with the renormalization group flow of quantum field theory and the fine-tuning required for dark energy. Simultaneously, high-energy astrophysical observations impose a strict “glass floor” on Lorentz invariance, seemingly precluding any fluid-like substructure to spacetime. This paper introduces the Relativistic Topological Superfluid (RTS) model, which unifies these regimes by treating the vacuum as a quantum condensate with an emergent acoustic metric. By identifying fundamental particles as topological defects (vortices) whose inertial mass arises from hydrodynamic drag, the study demonstrates that relativistic kinematics emerge naturally from the superfluid dynamics up to the Planck scale. This framework resolves the “Two Vacua” crisis by decoupling the dynamic vacuum energy driving cosmic expansion from the rigid geometric background governing particle propagation.",
  "abstract_markdown": "Standard cosmological models assume a static vacuum energy density, yet this premise conflicts with the renormalization group flow of quantum field theory and the fine-tuning required for dark energy. Simultaneously, high-energy astrophysical observations impose a strict “glass floor” on Lorentz invariance, seemingly precluding any fluid-like substructure to spacetime. This paper introduces the Relativistic Topological Superfluid (RTS) model, which unifies these regimes by treating the vacuum as a quantum condensate with an emergent acoustic metric. By identifying fundamental particles as topological defects (vortices) whose inertial mass arises from hydrodynamic drag, the study demonstrates that relativistic kinematics emerge naturally from the superfluid dynamics up to the Planck scale. This framework resolves the “Two Vacua” crisis by decoupling the dynamic vacuum energy driving cosmic expansion from the rigid geometric background governing particle propagation.",
  "date": "2025-12-01",
  "first_published": "2025-12-01",
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