MassGap-Carre: A Seven-Stage ZFC Strict-Rail Construction for the SU(3) Yang–Mills Mass Gap

It was determined that start2 require full completition of some problems, so going forward:This archive contains the complete MassGap-Carre staged proof package for a strict canonical SU(3) Yang–Mills mass-gap rail, written as a finite-to-continuum ZFC construction. The project is organized as seven staged documents. Step 1 builds the finite SU(3) gauge configuration space, gauge quotient, Wilson observables, Osterwalder–Schrader Gram matrices, finite OS Hilbert quotients, transfer operators, finite Hamiltonian slot, and Rayleigh quotient by finite ZFC mathematics. Stage 2 transports the produced finite-scale gap data to the true strict branch through finite true/produced Gram and energy-form comparison. Stage 3 proves multi-scale stability by Radon–Nikodym tail control, sixth-order polymer grammar, tree-graph counting, finite overlap estimates, and summability of the loss product. Stage 4 passes to the continuum through Mosco convergence, strong resolvent/semigroup convergence, OS reconstruction, no-extra-zero-mode control, and a positive continuum Hamiltonian gap. Stage 5 proves observable Wilson nontriviality by constructing a fixed-cylinder gauge-invariant Wilson observable with strictly positive continuum variance. The final assembly consumes Stages 1–5 and proves that the completed strict-rail chain excludes a no-gap Yang–Mills scenario on the declared rail. The final safe product isΞJ14=ΞJ4gapΞJ5W>0\Xi_{J14}=\Xi^{gap}_{J4}\Xi^{W}_{J5}>0ΞJ14=ΞJ4gapΞJ5W>0, giving Spec⁡(H∞true)⊂{0}∪[4κ3ΞJ14,∞],\operatorname{Spec}(H^{true}_{\infty})\subset\{0\}\cup\left[\frac{4\kappa}{3}\Xi_{J14},\infty\right],Spec(H∞true)⊂{0}∪[34κΞJ14,∞], with Wilson variance bounds Var⁡μ∞(Wℓ)≥19ΞJ14>0,Var⁡μ∞(ℜWℓ)≥118ΞJ14>0.\operatorname{Var}_{\mu_\infty}(W_\ell)\ge \frac{1}{9}\Xi_{J14}>0,\qquad \operatorname{Var}_{\mu_\infty}(\Re W_\ell)\ge \frac{1}{18}\Xi_{J14}>0.Varμ∞(Wℓ)≥91ΞJ14>0,Varμ∞(ℜWℓ)≥181ΞJ14>0. The coefficient 4κ/34\kappa/34κ/3 is fixed by the first nonzero SU(3) quadratic Casimir. Stage 7 closes the Clay-completion gate for the same strict canonical SU(3) rail by constructing gauge-invariant renormalized local fields as graph-norm limits, proving closability and affiliation with the physical von Neumann algebra, establishing translation and SO(4) covariance, proving tempered Schwinger distributions, and applying an internal OS-to-Wightman continuation argument yielding positivity, Poincare covariance, the spectral condition, and local commutativity. The mass lower bound remains mphys≥4κ3ΞJ14>0.m_{\mathrm{phys}}\ge \frac{4\kappa}{3}\Xi_{J14}>0.mphys≥34κΞJ14>0. This package does not claim Wilson area law, string tension, uniqueness of all regularizations, or official external acceptance; it presents the internal strict-rail mathematical construction and completion gate.a resolution of the ustc is undergoing

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-06-09
DOI
https://doi.org/10.5281/zenodo.20608510
Primary Topic
Control and Stability of Dynamical Systems
Type
preprint
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MassGap-Carre: A Seven-Stage ZFC Strict-Rail Construction for the SU(3) Yang–Mills Mass Gap

Son David Bolduc
Zenodo (CERN European Organization for Nuclear Research)
Control and Stability of Dynamical Systems
preprint

MassGap-Carre: A Seven-Stage ZFC Strict-Rail Construction for the SU(3) Yang–Mills Mass Gap

Son David Bolduc
preprint en

Abstract

It was determined that start2 require full completition of some problems, so going forward:This archive contains the complete MassGap-Carre staged proof package for a strict canonical SU(3) Yang–Mills mass-gap rail, written as a finite-to-continuum ZFC construction. The project is organized as seven staged documents. Step 1 builds the finite SU(3) gauge configuration space, gauge quotient, Wilson observables, Osterwalder–Schrader Gram matrices, finite OS Hilbert quotients, transfer operators, finite Hamiltonian slot, and Rayleigh quotient by finite ZFC mathematics. Stage 2 transports the produced finite-scale gap data to the true strict branch through finite true/produced Gram and energy-form comparison. Stage 3 proves multi-scale stability by Radon–Nikodym tail control, sixth-order polymer grammar, tree-graph counting, finite overlap estimates, and summability of the loss product. Stage 4 passes to the continuum through Mosco convergence, strong resolvent/semigroup convergence, OS reconstruction, no-extra-zero-mode control, and a positive continuum Hamiltonian gap. Stage 5 proves observable Wilson nontriviality by constructing a fixed-cylinder gauge-invariant Wilson observable with strictly positive continuum variance. The final assembly consumes Stages 1–5 and proves that the completed strict-rail chain excludes a no-gap Yang–Mills scenario on the declared rail. The final safe product isΞJ14=ΞJ4gapΞJ5W>0\Xi_{J14}=\Xi^{gap}_{J4}\Xi^{W}_{J5}>0ΞJ14=ΞJ4gapΞJ5W>0, giving Spec⁡(H∞true)⊂{0}∪[4κ3ΞJ14,∞],\operatorname{Spec}(H^{true}_{\infty})\subset\{0\}\cup\left[\frac{4\kappa}{3}\Xi_{J14},\infty\right],Spec(H∞true)⊂{0}∪[34κΞJ14,∞], with Wilson variance bounds Var⁡μ∞(Wℓ)≥19ΞJ14>0,Var⁡μ∞(ℜWℓ)≥118ΞJ14>0.\operatorname{Var}_{\mu_\infty}(W_\ell)\ge \frac{1}{9}\Xi_{J14}>0,\qquad \operatorname{Var}_{\mu_\infty}(\Re W_\ell)\ge \frac{1}{18}\Xi_{J14}>0.Varμ∞(Wℓ)≥91ΞJ14>0,Varμ∞(ℜWℓ)≥181ΞJ14>0. The coefficient 4κ/34\kappa/34κ/3 is fixed by the first nonzero SU(3) quadratic Casimir. Stage 7 closes the Clay-completion gate for the same strict canonical SU(3) rail by constructing gauge-invariant renormalized local fields as graph-norm limits, proving closability and affiliation with the physical von Neumann algebra, establishing translation and SO(4) covariance, proving tempered Schwinger distributions, and applying an internal OS-to-Wightman continuation argument yielding positivity, Poincare covariance, the spectral condition, and local commutativity. The mass lower bound remains mphys≥4κ3ΞJ14>0.m_{\mathrm{phys}}\ge \frac{4\kappa}{3}\Xi_{J14}>0.mphys≥34κΞJ14>0. This package does not claim Wilson area law, string tension, uniqueness of all regularizations, or official external acceptance; it presents the internal strict-rail mathematical construction and completion gate.a resolution of the ustc is undergoing

Zenodo (CERN European Organization for Nuclear Research)
Sustainable cities and communities
Control and Stability of Dynamical Systems
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