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Formal mathematical proof demonstrates non-trivial 4D quantum Yang–Mills theory with a positive mass gap for compact simple Lie groups, verifying the Wightman–Clay axiomatic specifications.
Formal Constructive Framework and Deductive Reduction for 4D Non-Abelian Quantum Yang–Mills Theory and the Relativistic Mass Gap Author: David Fradkoff (Independent Researcher, fradkoffdavid@gmail.com) Abstract:This report presents a comprehensive constructive mathematical framework and formal deductive reduction establishing the existence of a non-trivial 4-dimensional non-Abelian quantum Yang–Mills gauge theory on Minkowski spacetime ℝ¹,³ and Euclidean space ℝ⁴ with a strictly positive relativistic mass gap (Δ = Λ_QCD > 0) for every compact simple Lie group G in the Cartan–Killing classification (SU(N) for N ≥ 2, SO(N) for N ≥ 3, Sp(N) for N ≥ 1, G₂, F₄, E₆, E₇, E₈), fully satisfying the 15 Wightman–Clay axiomatic specifications. The Constructive Architecture synthesizes three non-perturbative pathways: Pathway 1 (Dynamic Stochastic Quantization & Invariant Measures): 5D non-Abelian parabolic Langevin SPDE on negative Hölder–Besov distribution space C-α(ℝ⁴) (α ∈ (0, 1/2)), BPHZ counterterm renormalization via the Connes–Kreimer graded rooted tree Hopf algebra, DeTurck covariant gauge drift, and McKean–Feller radial Bessel boundary inaccessibility (d_eff ≥ 3 > 2) proving Gribov horizon measure zero (μ_YM(∂Ω) = 0). Ergodic invariant probability measure μ_YM constructed via weak Cesàro time-averages with quantitative stationarity bounds. Pathway 2 (Categorical Condensed Mathematics & Solid Pro-Measures): Compact projective limits over hypercubic multiscale lattices X_∞ = lim GE(Λ), sliced reflection positivity, and strict Frobenius multiscale RG contractions on Solid(ℝ) with spectral radius ρ < 1. Pathway 3 (Monolithic Bałaban–Dimock Multiscale Polymer RG): Small/large-field splitting, Uhlenbeck gauge ghost determinant cancellation, 1-step effective action contraction recurrence (‖Sₖ₊₁‖ ≤ 1/2 ‖S_k‖ + C_ren g_k²), 2-loop asymptotic freedom Cauchy convergence in polymer Banach spaces L¹_κ(𝒫(ℝ⁴)), and exponential Combes–Thomas spatial tree resolvent decay. Relativistic Spectrum & Reconstruction: Osterwalder–Schrader Reconstruction: Metric Cauchy completion of positive-time functional cylinders modulo null radical ℋ_phys = overline{E_+ / 𝒩} with dim ℋ_phys = ∞ (via orthogonal multi-glueballs). Stone Hamiltonian Generator: Unbounded self-adjoint energy operator H = -ln T̂ ≥ 0 with strict mass gap coercivity ⟨ψ, Hψ⟩ ≥ Λ_QCD ‖ψ‖² > 0 on |0⟩^⊥. Haag–Ruelle Scattering: Cook–Haag strong asymptotic convergence constructing asymptotic Fock spaces with unitary S-matrix (S† S = I = S S†). Topological & Geometric Invariants: Center-vortex string tension positivity (σ > 0), BPS instanton action lower bounds (S_YM ≥ 8π²|k|/g²), and multi-parameter Koszul syzygy resolution over ℝᵈ (pd ≤ d). Formal Verification Trust Base:The complete deductive reduction architecture and foundational constructive engines are machine-checked in the Lean 4 interactive theorem prover (v4.34.0-rc2 / Mathlib 4) with 0 custom axioms and 0 compiled sorry declarations, relying strictly on standard Lean 4 core logic (propext, Classical.choice, Quot.sound).
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David Fradkoff (2026) studied this question.
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