TUM Paper 66: Densified Vacuum as Superfluid

We formalize the quantum vacuum as a structured superfluid in Cl(8,0). At the exceptional point sin²θ = cos²θ = 0.5 (θ_EP = π/4), a non-Hermitian transition to a NESS attractor occurs, defined by fundamental topological constants derived in Paper 64. The effective curvature becomes density-driven, yielding a universal U-signature y ∝ cosh(kx) that unifies optical mirages (Fermat) and gravitational lensing (Schwarzschild). MSW neutrino oscillation and galactic AGN cavitation are shown as frequency beating in the same medium. Cosmological bipolar flow (Dipole Repeller to Shapley) emerges as a macroscopic pressure gradient (∇P_cosmic) in this superfluid, with zero free parameters beyond the Cl(8,0) algebra. KEY RESULTS: - Micro-rotors R_i = exp(1/2 B_i θ_i) in Cl(8,0) with B_i² = -I - Exceptional Point sin²θ = cos²θ = 0.5, Jacobian J_ij non-diagonalizable - Topological constants: f_proj = 1.1430, I_bare = 0.9855, Z_norm = 1.00249 - NESS attractor: Γ_eq = (I_bare/1.3333) × Z_norm × f_proj = 0.8470 - Critical threshold: ρ_c = ρ_0 · Γ_eq - U-signature unification: y(x) = y_0 + (1/a)[cosh(ax)-1] (Fermat) ≡ y(x) ∝ cosh(k_g x) (Schwarzschild) - Effective constant: k_eff = k_0 (ρ/ρ_c) = k_0 ρ / (ρ_0 Γ_eq) - MSW resonance: V_eff = √2 G_F N_e (ρ/ρ_c), terrestrial consistency ΔV/V = O(10^-12) at Super-Kamiokande, resonance at θ_m = π/4 - Galactic cavitation: R¨R + (3/2)Ṙ² = [P_in - P_ext(ρ)]/ρ_ISM, growth R_cav(t) = R_0[1 + (Γ_eq W_cold t / ρ_0 R_0²)]^(1/5) - Cosmic flow: L = 160 Mpc, ∇P_cosmic = c_s²[(ρ_Shapley - ρ_Repeller)/L], c_s² = Γ_eq c²/3, v_bulk = 630 km/s recovered, I_grad(x) = [ρ(x)/ρ_c -1]·|v_bulk|/c = 0.005 to 0.035

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-09-24
DOI
https://doi.org/10.5281/zenodo.22945363
Primary Topic
Quantum Mechanics and Non-Hermitian Physics
Type
preprint
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preprint

TUM Paper 66: Densified Vacuum as Superfluid

Sebastián Berón
Zenodo (CERN European Organization for Nuclear Research)
Quantum Mechanics and Non-Hermitian Physics
preprint

TUM Paper 66: Densified Vacuum as Superfluid

Sebastián Berón
preprint en

Abstract

We formalize the quantum vacuum as a structured superfluid in Cl(8,0). At the exceptional point sin²θ = cos²θ = 0.5 (θ_EP = π/4), a non-Hermitian transition to a NESS attractor occurs, defined by fundamental topological constants derived in Paper 64. The effective curvature becomes density-driven, yielding a universal U-signature y ∝ cosh(kx) that unifies optical mirages (Fermat) and gravitational lensing (Schwarzschild). MSW neutrino oscillation and galactic AGN cavitation are shown as frequency beating in the same medium. Cosmological bipolar flow (Dipole Repeller to Shapley) emerges as a macroscopic pressure gradient (∇P_cosmic) in this superfluid, with zero free parameters beyond the Cl(8,0) algebra. KEY RESULTS: - Micro-rotors R_i = exp(1/2 B_i θ_i) in Cl(8,0) with B_i² = -I - Exceptional Point sin²θ = cos²θ = 0.5, Jacobian J_ij non-diagonalizable - Topological constants: f_proj = 1.1430, I_bare = 0.9855, Z_norm = 1.00249 - NESS attractor: Γ_eq = (I_bare/1.3333) × Z_norm × f_proj = 0.8470 - Critical threshold: ρ_c = ρ_0 · Γ_eq - U-signature unification: y(x) = y_0 + (1/a)[cosh(ax)-1] (Fermat) ≡ y(x) ∝ cosh(k_g x) (Schwarzschild) - Effective constant: k_eff = k_0 (ρ/ρ_c) = k_0 ρ / (ρ_0 Γ_eq) - MSW resonance: V_eff = √2 G_F N_e (ρ/ρ_c), terrestrial consistency ΔV/V = O(10^-12) at Super-Kamiokande, resonance at θ_m = π/4 - Galactic cavitation: R¨R + (3/2)Ṙ² = [P_in - P_ext(ρ)]/ρ_ISM, growth R_cav(t) = R_0[1 + (Γ_eq W_cold t / ρ_0 R_0²)]^(1/5) - Cosmic flow: L = 160 Mpc, ∇P_cosmic = c_s²[(ρ_Shapley - ρ_Repeller)/L], c_s² = Γ_eq c²/3, v_bulk = 630 km/s recovered, I_grad(x) = [ρ(x)/ρ_c -1]·|v_bulk|/c = 0.005 to 0.035

Zenodo (CERN European Organization for Nuclear Research)
Quantum Mechanics and Non-Hermitian Physics
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TUM Paper 66: Densified Vacuum as Superfluid — Sebastián Berón · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS