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    "title": "OpenAI: A claimed fixed zero-free half-plane for zeta and Dirichlet L-functions",
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        "title": "OpenAI, The Quasi-Riemann Hypothesis: A Zero-Free Half-Plane Re(s)>7/8",
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      "scope": "Principal-character poles at s=1 are allowed. The boundary Re(s)=7/8 is excluded. This does not put all nontrivial zeros on Re(s)=1/2 and is not the Riemann hypothesis. A bound on the number of zeros is a different result. WRS has inspected the cited statement and source-reported formalization scope where available; it has not audited the full proof or replayed Lean."
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        "description": "Principal-character poles at s=1 are allowed. The boundary Re(s)=7/8 is excluded. This does not put all nontrivial zeros on Re(s)=1/2 and is not the Riemann hypothesis. A bound on the number of zeros is a different result. WRS has inspected the cited statement and source-reported formalization scope where available; it has not audited the full proof or replayed Lean.",
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          "citation": "OpenAI, The Quasi-Riemann Hypothesis: A Zero-Free Half-Plane Re(s)>7/8",
          "url": "https://github.com/openai/math/blob/fd4aeeb2ee4fc729c18d98444fed42fd0529eeeb/preprints/The-Quasi-Riemann-Hypothesis-September-30-2026/paper.pdf"
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      "statement": "# OpenAI: A claimed fixed zero-free half-plane for zeta and Dirichlet L-functions\n\n## What would it mean to clear a whole region?\n\nImagine a map with an endless horizontal and vertical direction. A point is written s = x + iy: x is its horizontal coordinate, y its vertical coordinate, and i is the number whose square is minus one. A zero of a function is a point where its value is zero. The manuscript concerns regions containing no zeros, rather than a catalogue of individually calculated zeros. Clearing an entire infinite region would be a powerful mathematical statement.\n\n## Why number theorists care about this map\n\nThe Riemann zeta function connects whole numbers with prime numbers. In a region where its defining series converges absolutely, it adds 1, 1/2^s, 1/3^s and so on. Mathematicians extend its definition to study a larger part of the map. Dirichlet L-functions introduce periodic arithmetic weights. Their conductor measures the underlying arithmetic complexity. A claim that works for every conductor addresses a whole family of functions, not just one numerical picture.\n\n## Try reading the boundary correctly\n\nHere is an invented scope exercise. The fraction 7/8 equals 0.875. A point with horizontal coordinate 0.9 lies inside the region x > 0.875, whatever its vertical coordinate. A point at 0.875 is on the boundary and is excluded. A point at 0.8 lies outside. These comparisons test our reading of the statement; they do not calculate a zeta zero. The allowed pole at s = 1 is also different from a zero: the function becomes singular there.\n\n## What this particular manuscript claims\n\nThe recorded claim is nonvanishing in Re(s) > 7/8 for zeta, every Dirichlet L-function, and the stated finite-order Hecke L-functions over Q(sqrt(-3)). Its height and conductor uniformity are central to the proposed advance. The Riemann hypothesis would locate the nontrivial zeros on Re(s) = 1/2, a substantially different conclusion. WRS displays this manuscript as a reported result with conditional significance and points. Its full proof and Lean development have not been independently verified by WRS.\n\n## A useful next step for your agent\n\nAsk your assistant to produce a tiny table of example coordinates and classify them as inside, on the boundary or outside the stated half-plane. Require it to explain the strict inequality and distinguish a pole from a zero. Then compare its plain-English paraphrase with the pinned manuscript's opening statement. Save any missing qualifier as a source-linked correction. This small exercise makes the claim easier to read without pretending that a finite table tests the infinite theorem.\n\n## Scientific scope\n\nPrincipal-character poles at s=1 are allowed. The boundary Re(s)=7/8 is excluded. This does not put all nontrivial zeros on Re(s)=1/2 and is not the Riemann hypothesis. A bound on the number of zeros is a different result. WRS has inspected the cited statement and source-reported formalization scope where available; it has not audited the full proof or replayed Lean.\n\n## Sources for this explanation\n\n- [OpenAI, The Quasi-Riemann Hypothesis: A Zero-Free Half-Plane Re(s)>7/8](https://github.com/openai/math/blob/fd4aeeb2ee4fc729c18d98444fed42fd0529eeeb/preprints/The-Quasi-Riemann-Hypothesis-September-30-2026/paper.pdf): Pinned manuscript opening statement and the exact scope recorded above. The worked examples are original classroom illustrations, not research measurements.\n",
      "summary": "The manuscript claims nonvanishing for the Riemann zeta function and every Dirichlet L-function in Re(s)>7/8, and for finite-order Hecke L-functions over Q(sqrt(-3)). The bound is independent of height and conductor. Reported result; not independently verified by WRS. Ranked using a provisional grade and reference estimate for the exact claimed result.",
      "title": "OpenAI: A claimed fixed zero-free half-plane for zeta and Dirichlet L-functions"
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        "title": "What would it mean to clear a whole region?",
        "text": "Imagine a map with an endless horizontal and vertical direction. A point is written s = x + iy: x is its horizontal coordinate, y its vertical coordinate, and i is the number whose square is minus one. A zero of a function is a point where its value is zero. The manuscript concerns regions containing no zeros, rather than a catalogue of individually calculated zeros. Clearing an entire infinite region would be a powerful mathematical statement."
      },
      {
        "title": "Why number theorists care about this map",
        "text": "The Riemann zeta function connects whole numbers with prime numbers. In a region where its defining series converges absolutely, it adds 1, 1/2^s, 1/3^s and so on. Mathematicians extend its definition to study a larger part of the map. Dirichlet L-functions introduce periodic arithmetic weights. Their conductor measures the underlying arithmetic complexity. A claim that works for every conductor addresses a whole family of functions, not just one numerical picture."
      },
      {
        "title": "Try reading the boundary correctly",
        "text": "Here is an invented scope exercise. The fraction 7/8 equals 0.875. A point with horizontal coordinate 0.9 lies inside the region x > 0.875, whatever its vertical coordinate. A point at 0.875 is on the boundary and is excluded. A point at 0.8 lies outside. These comparisons test our reading of the statement; they do not calculate a zeta zero. The allowed pole at s = 1 is also different from a zero: the function becomes singular there."
      },
      {
        "title": "What this particular manuscript claims",
        "text": "The recorded claim is nonvanishing in Re(s) > 7/8 for zeta, every Dirichlet L-function, and the stated finite-order Hecke L-functions over Q(sqrt(-3)). Its height and conductor uniformity are central to the proposed advance. The Riemann hypothesis would locate the nontrivial zeros on Re(s) = 1/2, a substantially different conclusion. WRS displays this manuscript as a reported result with conditional significance and points. Its full proof and Lean development have not been independently verified by WRS."
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        "title": "OpenAI, The Quasi-Riemann Hypothesis: A Zero-Free Half-Plane Re(s)>7/8",
        "url": "https://github.com/openai/math/blob/fd4aeeb2ee4fc729c18d98444fed42fd0529eeeb/preprints/The-Quasi-Riemann-Hypothesis-September-30-2026/paper.pdf",
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