From Intuition to Judgment: Spectral Collapse, an Exact Crossover Law, the Symmetry–Positivity Dichotomy, and the Geometric Shape of the Wall Confronting the Riemann Hypothesis

This paper presents a transparent, fully reproducible study of the spectral structure underlying the Riemann zeros, organized around one question: which features of the problem are structurally available, and which constitute the genuine obstruction. It makes NO claim of proving the Riemann Hypothesis. Working in the random-matrix model S = H + gA (the elliptic GinOE ensemble), four results are established, each proved algebraically and verified numerically: (i) an exact crossover law for the variance of the real parts, which corrects a previously reported fractional exponent −0.8 shown here to be a finite-window artifact; (ii) an exact dimensional collapse det Σ = 0 arising from the trace constraint; (iii) a mirror symmetry λ ↔ 1−λ* induced by the involution S = I − Sᵀ; and (iv) a symmetry–positivity dichotomy, proved with explicit matrices, showing that the functional-equation analogue (set-symmetry about Re = ½) does not force all eigenvalues onto the critical line. Across five independent avenues — logarithmic time, GUE statistics, the explicit formula, interacting-Majorana/SYK with Bott periodicity, and the metric/positivity structure — the general structure is shown to be uniformly available, while the precise determination of the zeros is uniformly protected by a single wall: positivity. This wall is then given a geometric shape: the analogue of the Riemann Hypothesis is a theorem exactly where a real curved space supplies positivity automatically (finite fields via the Hodge intersection form; Selberg surfaces via the Laplacian), and open for ζ precisely because the required space — a curvature on Spec(ℤ) whose closed orbits have lengths ln p — does not yet exist. The contribution is a rigorous, computable map of where the difficulty truly resides, with every positive claim verified under a fixed random seed and every failed conjecture recorded honestly. A companion verification script (master_verification.py) re-checks all eighteen reported results. Reproducibility: all numerical values were computed with mpmath and NumPy under a fixed seed (12345); the verification script reproduces every result. Artificial intelligence (Claude, by Anthropic) was used as a tool for computation, simulation, refutation testing, figure generation, and typesetting; the intuitions, direction, and full responsibility for the content belong to the author.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-05-31
DOI
https://doi.org/10.5281/zenodo.20479694
Primary Topic
Random Matrices and Applications
Type
article
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article

From Intuition to Judgment: Spectral Collapse, an Exact Crossover Law, the Symmetry–Positivity Dichotomy, and the Geometric Shape of the Wall Confronting the Riemann Hypothesis

Abdelilah AHMOURI
Zenodo (CERN European Organization for Nuclear Research)
Random Matrices and Applications
article

From Intuition to Judgment: Spectral Collapse, an Exact Crossover Law, the Symmetry–Positivity Dichotomy, and the Geometric Shape of the Wall Confronting the Riemann Hypothesis

Abdelilah AHMOURI
article en

Abstract

This paper presents a transparent, fully reproducible study of the spectral structure underlying the Riemann zeros, organized around one question: which features of the problem are structurally available, and which constitute the genuine obstruction. It makes NO claim of proving the Riemann Hypothesis. Working in the random-matrix model S = H + gA (the elliptic GinOE ensemble), four results are established, each proved algebraically and verified numerically: (i) an exact crossover law for the variance of the real parts, which corrects a previously reported fractional exponent −0.8 shown here to be a finite-window artifact; (ii) an exact dimensional collapse det Σ = 0 arising from the trace constraint; (iii) a mirror symmetry λ ↔ 1−λ* induced by the involution S = I − Sᵀ; and (iv) a symmetry–positivity dichotomy, proved with explicit matrices, showing that the functional-equation analogue (set-symmetry about Re = ½) does not force all eigenvalues onto the critical line. Across five independent avenues — logarithmic time, GUE statistics, the explicit formula, interacting-Majorana/SYK with Bott periodicity, and the metric/positivity structure — the general structure is shown to be uniformly available, while the precise determination of the zeros is uniformly protected by a single wall: positivity. This wall is then given a geometric shape: the analogue of the Riemann Hypothesis is a theorem exactly where a real curved space supplies positivity automatically (finite fields via the Hodge intersection form; Selberg surfaces via the Laplacian), and open for ζ precisely because the required space — a curvature on Spec(ℤ) whose closed orbits have lengths ln p — does not yet exist. The contribution is a rigorous, computable map of where the difficulty truly resides, with every positive claim verified under a fixed random seed and every failed conjecture recorded honestly. A companion verification script (master_verification.py) re-checks all eighteen reported results. Reproducibility: all numerical values were computed with mpmath and NumPy under a fixed seed (12345); the verification script reproduces every result. Artificial intelligence (Claude, by Anthropic) was used as a tool for computation, simulation, refutation testing, figure generation, and typesetting; the intuitions, direction, and full responsibility for the content belong to the author.

Zenodo (CERN European Organization for Nuclear Research)
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