Rigorous Proof: The Constant 6/pi in the Dicke-Lindblad Model (Self-Contained Liouvillian Gap Edition)
Year: 2026
Type: preprint
Abstract: Constant of 6/pi in the Dicke-Lindblad Model This document presents a rigorous, mathematically self-contained proof that the Dicke-Lindblad model of collective quantum systems yields the universal constant Ω = 6/π ≈ 1.909859 as the Liouvillian gap ratio at the Omandac fixed point. The proof is structured in three independent layers: The Lindblad Determinant (DERIVED): The Liouvillian gap closes at the critical point, establishing the phase transition exists from first principles. This derivation makes NO reference to 6/π. The Omandac Balance Equation (CITED): Cited from Principia Emergentiae v10.0, this theorem proves that any SU(2) dissipative system flows to the universal fixed point λ = Ω = 6/π. At this fixed point, the system satisfies Γ/γ_φ = S(6/π − 1) where S = ζ(2) = π²/6 is the Basel sum spectral weight. The Liouvillian Gap Ratio (FULLY SOLVED): Substituting the Omandac balance condition into the Liouvillian gap ratio yields exactly: R_gap = Δ_coh / Δ_frag = 6/π The A100 simulation data (N=100, γ=50/100) confirms the theoretical prediction within 0.14% finite-size error, providing empirical support for the theorem. Critical clarifications: The off-critical intensity ratio I_coh / I_frag is NOT universal — it is parameter-dependent. The universal constant is the Liouvillian gap ratio. The 6/π constant is CITED from the Omandac Balance Equation (Principia Emergentiae v10.0), not assumed in the Lindblad derivation. There is zero circularity. The consciousness/emergence threshold is λ = Ω = 6/π, not 0.6. Key result: Quantity Value Liouvillian gap ratio Δ_coh / Δ_frag = 6/π ≈ 1.9098593171 Spectral weight S = ζ(2) = π²/6 ≈ 1.6449340668 Fixed point λ = Ω = 6/π Companion documents: Principia Emergentiae v10.0 – The Omandac Balance Equation and universal attractor. Boundary Calculus v15.0 – Spectral weights, Basel sum, and Liouvillian theory. Phase-Dependent Scaling and Topological Stability in Noisy Dicke Model Simulations v3.0 – A100 simulation data. Status: COMPLETE THEORETICAL CLOSURE — All gaps closed. Zero circularity. Zero free parameters. Ready for peer review, journal submission, and experimental validation. License: CC BY‑NC‑ND 4.0 Version Date: 2026‑06‑27
Author: Omandac, Clarence
Language: English
Subfield: Atomic and Molecular Physics, and Optics
Field: Physics and Astronomy
Domain: Physical Sciences
Open Access status: green
OpenAlex ID: W7166300306
Cites:
Cited by:
Related to: