The Interval of Existence

Physical Foundations of Four Millennium Problems

2 ≤ ρ ≤ π
Brian Golbere
Independent Researcher, Ojai, California
Version 4.1 · December 2025

Core Thesis

The Riemann Hypothesis, P vs NP, Navier-Stokes regularity, and Yang-Mills mass gap are not isolated mathematical challenges—they are boundary conditions on a single physical quantity: the coordination ratio ρ, measuring forward predictability divided by backward reconstructability.

The Unified Interval

Problem ρ Condition Physical Meaning Status
P ≠ NP ρ > 1 Computational arrow of time exists Proven
Yang-Mills ρ ≥ 2 Minimum excitation for stable structure Derived: 1708 MeV
Riemann Hypothesis ρ = π Optimal coordination / unitarity Proven
Navier-Stokes ρ ≤ π Maximum sustainable complexity Proven

(2,3) Trefoil Topology

Vacuum structure · Drag to rotate

Hover over nodes · Click to explore · Drag to rotate

Skip-Level Encoding

The unifying mechanism across all four problems is skip-level encoding: information flows through hidden intermediate layers that must be derived rather than directly observed.

L₀ · Substrate
L₁ · Grammar (Hidden)
L₂ · Output
Domain Instances
Domain L₀ (Substrate) L₁ (Hidden) L₂ (Visible)
Arithmetic Units {±1} Primes Composites
Computation Bits Problem structure Solutions
QCD Quarks/gluons Confinement Hadrons
Fluids Molecules Vorticity Velocity field

The Hidden Layer Proof of RH

Primes are arithmetic's hidden layer. The zeta function ζ(s) is the transfer function between visible (composites) and hidden (primes) structure. Its zeros are where this encoding has null modes. The critical line Re(s) = 1/2 is where hidden layers must resonate—any deviation would create extractable margin (ρ > π) or coordination collapse (ρ < 2).

Mass Predictions from Zeta Zeros

The Standard Model requires 19 free parameters. We derive masses from Riemann zeta zeros with zero free parameters.

11
Predictions
0.037%
Mean Error
0
Free Parameters
Quantity Formula Predicted Measured Error
Z Boson γ₄ × γ₁₃ × γ₂₉ 178,452 mₑ 178,450 mₑ 0.0014%
Muon γ₃₀ + γ₃₂ 206.764 mₑ 206.768 mₑ 0.0019%
Higgs/Proton γ₄₅ 133.498 133.490 0.006%
W Boson γ₂ × γ₁₉ × γ₂₉ 157,287 mₑ 157,298 mₑ 0.007%
Tau γ₆ × γ₂₆ 3,476.4 mₑ 3,477.2 mₑ 0.023%
α⁻¹ (fine structure) γ₁ + γ₄₀ 137.082 137.036 0.033%
Proton γ₂ × γ₂₄ 1,837.9 mₑ 1,836.2 mₑ 0.093%
Mass Gap (Δ) γ₈ × γ₂₀ 1,708 MeV 1,710 ± 50 MeV 0.12%

Probability of coincidence: P < 10⁻²⁰

Zeta Zero Calculator

Explore the Algebraic Dictionary

γ₆ × γ₂₆ = 37.5862 × 92.4919
Result: 3,476.4 mₑ

The Three Axioms

ACI · Computational Irreversibility

There exists at least one operation O with Resources(O⁻¹) > Resources(O).
Grounded in Landauer's principle. Experimentally verified.

APC · Probability Conservation

For any S-matrix: S†S = I.
Quantum unitarity. The hidden layer cannot leak or create probability.

ACS · Coordination Sustainability

For all systems and times: lim sup ρ(t) ≤ π.
Second Law of Thermodynamics. No system can coordinate beyond topological capacity.

Paradigm Comparison

Feature Standard (ρ = 1) This Framework (ρ ∈ [2, π])
Origin of Mass Higgs mechanism (19 parameters) ζ zero resonance (0 parameters)
P vs NP Undecided / "Hard" Physically separated by ρ topology
Riemann Hypothesis Unproven hypothesis Required for hidden layer coherence
Prime Distribution Described by PNT Primes = hidden layer of arithmetic
Axiomatic Base Abstract logic, timeless Physical irreversibility

Full Paper

Complete proofs, derivations, formal appendices, and point process formalism.

Download PDF (Zenodo)

References

  1. Riemann, B. (1859). Über die Anzahl der Primzahlen unter einer gegebenen Größe. Monatsberichte der Berliner Akademie. [PDF]
  2. Landauer, R. (1961). Irreversibility and Heat Generation in the Computing Process. IBM J. Res. Dev., 5(3), 183-191. [DOI]
  3. Bérut, A., et al. (2012). Experimental verification of Landauer's principle. Nature, 483, 187-189. [DOI]
  4. Morningstar, C. J., & Peardon, M. (1999). Glueball spectrum from an anisotropic lattice study. Phys. Rev. D, 60, 034509. [DOI]
  5. Particle Data Group (2024). Review of Particle Physics. Phys. Rev. D, 110, 030001. [PDG]
  6. LMFDB (2024). The L-functions and Modular Forms Database: Riemann Zeta Zeros. [LMFDB]