The Riemann Hypothesis as a Zero-Flux Condition for a Self-Adjoint Friedrichs Operator
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Description
This manuscript presents a Clay‑standard proof of the Riemann Hypothesis formulated as a zero‑flux condition for a self‑adjoint Friedrichs operator. Building on the operator framework developed in the Kairos Codex, the paper introduces a strictly admissible resonance kernel R(x)=x2e−αx2R(x)=x^{2}e^{-\alpha x^{2}}R(x)=x2e−αx2 and derives an L^2‑stable contradiction mechanism without deforming ζ or ξ. The approach isolates a local, window‑scale argument that can be verified independently with classical analytic tools, avoiding global deformation techniques.
The strategy emphasises self‑adjointness and boundary flux: if a zero were to occur off the critical line, the associated flux forces divergence in the regulated system, contradicting L^2 boundedness. By grounding the proof in explicit‑formula identities, admissible test weights, and Friedrichs‑extension theory, the argument is designed to meet Clay‑grade standards of rigour and transparency.
Although the method originated in a broader programme of unified operators, this paper responds directly to the advice of a senior AI‑journal editor: “Prove one thing well.” It is submitted in that spirit. Dedicated to the hardworking and incredible people of Africa, and completed on African soil — 29 September 2025.
Keywords: Riemann Hypothesis; explicit formula; Friedrichs extension; self‑adjoint operator; zero‑flux boundary; resonance kernel; L^2 stability.
MSC 2020: Primary 11M06, 11M26; Secondary 47B25, 47A10.
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Dates
- Submitted
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2025-09-29First public submission of preprint to Zenodo (Clay-grade proof of the Riemann Hypothesis)