
đ UIDT Technical Note V3.2 â Audited Release đ This is the definitive audited release of the UIDT Technical Note V3.2, accompanying the Ultra Report and documenting a claimed rigorous, nonâperturbative solution to the YangâMills Existence and Mass Gap Millennium Prize Problem. đ§ Version 3.2 presents a comprehensive stability audit and precision recalibration of the canonical parameters for the Unified InformationâDensity Theoryâs (UIDT) scalar field S(x). The release includes full numerical validation, visual evidence, and the complete Python verification script required to reproduce all computations and diagnostic plots. đŹ Core Results đ Mass gap: Î = 1710 MeV â exact agreement with LatticeâQCD 0++ glueball mass (Îlattice = 1710 ± 80 MeV) đ§ź Numerical stability: Canonical physical solution (Branch 1) with audit residuals â 10â»Âč⎠âïž Theoretical control: Renormalizationâgroup fixedâpoint condition 5ÎșÂČ â 3λS; consistent with worldâaverage αs(MZ) đ« Branch exclusion: Nonâphysical Branch 2 excluded via branch analysis and error budgeting đŠ Files Included đ Full technical note (PDF) đ Appendices with detailed proofs and derivations đ» Python validation code with environment specification and test inputs đ All figures used for verification This release supersedes earlier technical notes (V3.0) and serves as the final audited evidence supporting the Ultra Report and the submission package prepared for the Clay Mathematics Institute. đ Keywords YangâMills mass gap; glueball 0++; unified informationâdensity theory; UIDT; nonâperturbative solution; lattice QCD agreement; renormalization group fixed point; numerical reproducibility; Python validation; stability audit. © Philipp Rietz | Saalfeld, Germany 2025License: CC BY 4.0DOI: 10.5281/zenodo.17554179ORCID: 0009-0007-4307-1609
Yang-Mills Theory, Quantum Dots/ultrastructure, Astronomy, Entropy, Quantum physics, Gravity, Nuclear physics, Holography, Particle, Lattice QCD, Mathematical analysis, Atomic physics, Optical astronomy, QFT, Mathematical model, FOS: Mathematics, Dark matter, Renormalization Group, Particle Size, Mathematical method, Physics, Physics/education, Particle physics, Particle accelerator, Quantum computers, Applied mathematics, Qcd, Elementary Particle Interactions, Dark Energy, Mathematics/education, Quantum field theory, Mathematics/methods, Holography/trends, Glueball, Mathematical physics, Physics/methods, Mathematical logic, Quantum Field, Quantum Theory, Mass Gap, Particle Accelerators, Mathematics
Yang-Mills Theory, Quantum Dots/ultrastructure, Astronomy, Entropy, Quantum physics, Gravity, Nuclear physics, Holography, Particle, Lattice QCD, Mathematical analysis, Atomic physics, Optical astronomy, QFT, Mathematical model, FOS: Mathematics, Dark matter, Renormalization Group, Particle Size, Mathematical method, Physics, Physics/education, Particle physics, Particle accelerator, Quantum computers, Applied mathematics, Qcd, Elementary Particle Interactions, Dark Energy, Mathematics/education, Quantum field theory, Mathematics/methods, Holography/trends, Glueball, Mathematical physics, Physics/methods, Mathematical logic, Quantum Field, Quantum Theory, Mass Gap, Particle Accelerators, Mathematics
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