Certified Convex Positivity for the Pole-Inclusive Weil Form at the Prime-Free Endpoint

We establish a certified coercive lower bound for the pole-inclusive archimedean Weil quadratic form at the complete prime-free endpoint. For every real test function ψ supported on an interval of length at most log 2 and satisfying the stated logarithmic Fourier-integrability condition, we prove Q₀(ψ) ≥ 1.2 × 10⁻⁴ ||ψ||²₂. The proof converts the quadratic form exactly into a convex functional of the normalized autocorrelation. Positive definiteness then yields a finite dual-certificate criterion. At D = log 2, the criterion is verified by a positive atomic measure with 484 atoms using outward-rounded Arb ball arithmetic. The verification includes an analytic origin gate, a fixed uniform pass over 500,000 cells, certified evaluation of the singular-kernel constants, a rigorous ladder-tail bound, and provable interval comparisons. The record includes the article, the machine-readable certificate, an independent verifier, the execution environment, the verification log, and SHA-256 checksums. The paper also proves the exact Gaussian transfer identity Q_A(μ) = Q₀(φ_A * μ) and places the result in relation to the work of Yoshida, Bombieri, Connes–Consani, Suzuki, and subsequent computational approaches to the Weil functional.

Authors

Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-07-30
DOI
https://doi.org/10.5281/zenodo.21704683
Primary Topic
Polynomial and algebraic computation
Type
preprint
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preprint

Certified Convex Positivity for the Pole-Inclusive Weil Form at the Prime-Free Endpoint

Salem Eid
Zenodo (CERN European Organization for Nuclear Research)
Polynomial and algebraic computation
preprint

Certified Convex Positivity for the Pole-Inclusive Weil Form at the Prime-Free Endpoint

Salem Eid
preprint en

Abstract

We establish a certified coercive lower bound for the pole-inclusive archimedean Weil quadratic form at the complete prime-free endpoint. For every real test function ψ supported on an interval of length at most log 2 and satisfying the stated logarithmic Fourier-integrability condition, we prove Q₀(ψ) ≥ 1.2 × 10⁻⁴ ||ψ||²₂. The proof converts the quadratic form exactly into a convex functional of the normalized autocorrelation. Positive definiteness then yields a finite dual-certificate criterion. At D = log 2, the criterion is verified by a positive atomic measure with 484 atoms using outward-rounded Arb ball arithmetic. The verification includes an analytic origin gate, a fixed uniform pass over 500,000 cells, certified evaluation of the singular-kernel constants, a rigorous ladder-tail bound, and provable interval comparisons. The record includes the article, the machine-readable certificate, an independent verifier, the execution environment, the verification log, and SHA-256 checksums. The paper also proves the exact Gaussian transfer identity Q_A(μ) = Q₀(φ_A * μ) and places the result in relation to the work of Yoshida, Bombieri, Connes–Consani, Suzuki, and subsequent computational approaches to the Weil functional.

Zenodo (CERN European Organization for Nuclear Research)
Polynomial and algebraic computation
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