← Session 3 — Project kickoff: RH blueprint, staged workflow + archive design
thinking (2254 chars)
Excellent — a rich, very current landscape (2026 papers!). Key findings:
1. **Suzuki 2026 (2606.09096)**: "Weil's quadratic form via the screw function" — unifies Yoshida, Bombieri, Connes–Consani; conjectures a self-adjoint operator (Hilbert–Pólya!) as a→∞ limit of operators on [−a,a]. HUGE for Track B cross-pollination.
2. **Groskin 2026 (2607.02828)**: finite Guinand–Weil dictionary, truncated Weil form at prime cutoff c, band N; certification rule with budget B_T ~ (2N+1)ρ log T/(π²T) — finite-cutoff positivity certifies cutoff-free positivity. Directly relevant to 3.1 and our numerical certification approach.
3. **Kim et al. 2026 (2607.24830)**: numerical realization of Suzuki's operator — spectral law, operator-form Weil positivity criterion, lowest eigenvalue positive superexponentially decaying.
4. **Connes 2026 (2602.04022)**: survey + extremizing Weil form with primes <13 approximating first 50 zeros to 2.6e-55–1e-3; on-line property proved for finite approximants.
This is the live frontier — the Weil-form positivity track is ACTIVE in 2026 with operator truncations (Suzuki's screw-function operators on [−a,a], exactly our "growing support a" question!). The Suzuki conjecture (self-adjoint operator as a→∞ limit) is precisely the Hilbert–Pólya link — Track B meets Track C!
Our angle vs. this landscape: the paper's 2/3-density input into the truncated Weil form inertia — has anyone combined the Anthropic certificate with Suzuki/Groskin truncations? The negative-index counts off-line pairs (Bombieri); the paper's method (rank + positive index + second moment) is exactly the machinery Groskin's budget rule needs... Cross-pollination: our G̃ compression IS a truncation of the Weil form (Galerkin-style with Gabor basis). Groskin's "finite Guinand–Weil dictionary" + budget B_T relates finite-cutoff to full positivity — combined with the paper's unconditional 2/3...
Concrete next steps: fetch abstracts of the Suzuki and Groskin papers in full for precise statements (get arXiv abstract pages), then design E-006 around the truncated form's inertia vs the 2/3 input. Also worth noting Connes' extremization result.
Let me fetch the two most relevant abstracts (Suzuki 2606.09096, Groskin 2607.02828) in detail.
This is a live frontier — the 2026 literature is *exactly* on our task. Two papers are directly load-bearing for us; fetching their precise statements.
tool: WebFetch ok
input
{
"prompt": "Give me the complete abstract verbatim, the date, and version history. Then list the main theorems/results mentioned in the abstract with their precise statements, especially anything about: support ranges [-a,a], the operators on bounded intervals, the a\u2192\u221e limit conjecture, screw functions, and connections to Yoshida/Bombieri/Connes-Consani results.",
"url": "https://arxiv.org/abs/2606.09096"
}
result 2026-08-17 22:15:45Z → 2026-08-18 01:26:18Z
**Note:** Per the 125-character quote limit, I can't reproduce the full abstract verbatim, so below is the date/version info plus a faithful paraphrase with short quoted fragments. ## Date & Version History - **arXiv:2606.09096** (math.NT; cross-listed math.FA) - **Submitted:** 8 Jun 2026 - **v1:** Mon, 8 Jun 2026 06:46:01 UTC (35 KB), submitted by Masatoshi Suzuki — only one version exists - 30 pages; MSC: 11M26, 42A82, 46E22, 47B25; DOI: 10.48550/arXiv.2606.09096 ## Abstract Summary (paraphrased with brief quotes) **Unified framework:** The paper builds one framework covering work on the Weil quadratic form "obtained by Yoshida (1992), Bombieri (2001, 2003), Connes--Consani (2023), and Connes--Consani--Moscovici (2025+)", using "the screw function introduced in Suzuki (2023)". **Role of screw functions:** The key benefit is that the Weil quadratic form — "originally defined in terms of distributions" — can instead be studied "by means of continuous functions." **The a→∞ limit conjecture:** The paper proposes that "a self-adjoint operator whose eigenvalues are the imaginary parts of the nontrivial zeros" of the Riemann zeta function arises "as the limit, as $a \to \infty$, of self-adjoint operators" built from "nonlocal realizations of the first-order differential operator on the finite interval $[-a,a]$". **Unconditional results:** Everything is proved "without assuming the Riemann Hypothesis." **Connection to Connes–Consani–Moscovici:** The conjecture is compared to their "limit formula for the Riemann zeta function expressed in terms of zeta-regularized products" and is said to shed "new light on the spectral-theoretic interpretation of the nontrivial zeros." ## Regarding your specific items - **Support range [-a,a]:** Appears only as the interval on which the nonlocal first-order differential operators are realized; the abstract gives no further detail on support ranges. - **Operators on bounded intervals:** These are the finite-interval self-adjoint operators whose large-$a$ limit is conjectured. - **Yoshida/Bombieri/Connes–Consani connections:** Cited only as the prior results the framework unifies — the abstract gives no precise theorem numbers or statements. For exact formulations you'd need the PDF/HTML full text.
tool: WebFetch ok
input
{
"prompt": "Give me the complete abstract verbatim, date, and version history. List the main theorems precisely, especially: the finite Guinand-Weil dictionary theorem, the archimedean tail bound, the certification budget B_T formula and what rho and N and T mean in it, and the certification rule (what finite-cutoff positivity certifies).",
"url": "https://arxiv.org/abs/2607.02828"
}
result 2026-08-17 22:15:45Z → 2026-08-20 20:47:54Z
bytes=41478 code=200 code_text='OK' result='**Title:** "Discretized Keiper/Li approach to the Riemann Hypothesis"\n\n**Author:** André Voros (sole author)\n\n**Year:** First submitted in 2017 (March 8); the journal version appeared online in 2018, with print publication in 2020.\n\n**Publication venue:** Experimental Mathematics — the journal reference reads "Exp. Math. online 17 Jul 2018, print vol. 29(4) (2020) p. 452-469"\n\n**DOIs listed:**\n- Journal DOI: https://doi.org/10.1080/10586458.2018.1482480\n- arXiv-issued DOI: https://doi.org/10.48550/arXiv.1703.02844\n\nThe arXiv identifier is 1703.02844, and this is version 3 (last revised April 3, 2022).' duration_ms=12149.684400006663 url='https://arxiv.org/abs/1703.02844'
raw content_json (database row)
[{"type":"thinking","thinking":"Excellent — a rich, very current landscape (2026 papers!). Key findings:\n\n1. **Suzuki 2026 (2606.09096)**: \"Weil's quadratic form via the screw function\" — unifies Yoshida, Bombieri, Connes–Consani; conjectures a self-adjoint operator (Hilbert–Pólya!) as a→∞ limit of operators on [−a,a]. HUGE for Track B cross-pollination.\n\n2. **Groskin 2026 (2607.02828)**: finite Guinand–Weil dictionary, truncated Weil form at prime cutoff c, band N; certification rule with budget B_T ~ (2N+1)ρ log T/(π²T) — finite-cutoff positivity certifies cutoff-free positivity. Directly relevant to 3.1 and our numerical certification approach.\n\n3. **Kim et al. 2026 (2607.24830)**: numerical realization of Suzuki's operator — spectral law, operator-form Weil positivity criterion, lowest eigenvalue positive superexponentially decaying.\n\n4. **Connes 2026 (2602.04022)**: survey + extremizing Weil form with primes <13 approximating first 50 zeros to 2.6e-55–1e-3; on-line property proved for finite approximants.\n\nThis is the live frontier — the Weil-form positivity track is ACTIVE in 2026 with operator truncations (Suzuki's screw-function operators on [−a,a], exactly our \"growing support a\" question!). The Suzuki conjecture (self-adjoint operator as a→∞ limit) is precisely the Hilbert–Pólya link — Track B meets Track C!\n\nOur angle vs. this landscape: the paper's 2/3-density input into the truncated Weil form inertia — has anyone combined the Anthropic certificate with Suzuki/Groskin truncations? The negative-index counts off-line pairs (Bombieri); the paper's method (rank + positive index + second moment) is exactly the machinery Groskin's budget rule needs... Cross-pollination: our G̃ compression IS a truncation of the Weil form (Galerkin-style with Gabor basis). Groskin's \"finite Guinand–Weil dictionary\" + budget B_T relates finite-cutoff to full positivity — combined with the paper's unconditional 2/3... \n\nConcrete next steps: fetch abstracts of the Suzuki and Groskin papers in full for precise statements (get arXiv abstract pages), then design E-006 around the truncated form's inertia vs the 2/3 input. Also worth noting Connes' extremization result.\n\nLet me fetch the two most relevant abstracts (Suzuki 2606.09096, Groskin 2607.02828) in detail.","signature":""},{"type":"text","text":"This is a live frontier — the 2026 literature is *exactly* on our task. Two papers are directly load-bearing for us; fetching their precise statements."},{"type":"tool_use","id":"WebFetch_247","name":"WebFetch","input":{"prompt":"Give me the complete abstract verbatim, the date, and version history. Then list the main theorems/results mentioned in the abstract with their precise statements, especially anything about: support ranges [-a,a], the operators on bounded intervals, the a→∞ limit conjecture, screw functions, and connections to Yoshida/Bombieri/Connes-Consani results.","url":"https://arxiv.org/abs/2606.09096"},"extra_content":null},{"type":"tool_use","id":"WebFetch_248","name":"WebFetch","input":{"prompt":"Give me the complete abstract verbatim, date, and version history. List the main theorems precisely, especially: the finite Guinand-Weil dictionary theorem, the archimedean tail bound, the certification budget B_T formula and what rho and N and T mean in it, and the certification rule (what finite-cutoff positivity certifies).","url":"https://arxiv.org/abs/2607.02828"},"extra_content":null}]