Bound · version 2

More than 67.25% simple zeros on the line, asymptotically

Statement

Let N(T) count nontrivial zeros with 0 < Im ρ ≤ T, with multiplicity, and N₀ˢ(T) count simple zeros on Re ρ = 1/2. Then liminf as T → ∞ of N₀ˢ(T)/N(T) ≥ k₀ = 3/2 − cot(1/√2)/√2 = 0.6725007037… .

Assumptions

  • Classical ζ; no RH assumption.
  • Asymptotic proportions as T → ∞; the denominator counts multiplicity.

Scope

For every ε > 0 the proportion is eventually at least k₀ − ε; dyadic (T,2T] and cumulative (0,T] versions are available.

Explanation

Proof outlines · 2
Bounds & computations · 1

Compare the quantity and hypotheses within each group. A finite check, conditional theorem and proposed improvement cover different scopes.

Simple zeros on the critical line
ResultValueConditions
More than 67.25% simple zeros on the line, asymptotically →

Proved

Selected source date:

≥ k₀ = 0.6725007037…Asymptotic liminf; denominator N(T) counts all zeros with multiplicity.

Evidence

Source reports

Connections

In this problem · publication v5 · Selected context

Riemann hypothesis →

Bound · Proved

Simple AND on-line zeros form a subset of on-line zeros. This lower bound does not eliminate all exceptions, or specify a universal finite cutoff.

Scope: An unconditional lower bound above 67.25% for simple zeros on the line; two cited proofs support one Claim.

Limit: This is a lower bound as height tends to infinity, not a finite-window promise or a percentage of RH solved.

Finite verification and asymptotic proportion address different regimes; their percentages and heights cannot be added.

Related results · 1

Relationship not independently reviewed. This concerns its use in this problem.

In this problem · publication v13

Riemann hypothesis →

Bound · Proved

Simple AND on-line zeros form a subset of on-line zeros. This lower bound does not eliminate all exceptions, or specify a universal finite cutoff.

Scope: An unconditional lower bound above 67.25% for simple zeros on the line; two cited proofs support one Claim.

Limit: This is a lower bound as height tends to infinity, not a finite-window promise or a percentage of RH solved.

Finite verification and asymptotic proportion address different regimes; their percentages and heights cannot be added.

Related results · 1

Relationship not independently reviewed. This concerns its use in this problem.

Sources

Alpöge–Furman · simple zeros on the line →

Levent Alpöge · Ralph Furman · Preprint

August 2026 preprint. Named mathematical authors explicitly state that they verified the proof and take responsibility. Journal acceptance and independent OpenMath expert review are not established.

Revision & attribution

Source revision: arxiv-v2. Observed Oct 10, 2026.

The paper credits Claude (Anthropic) with discovery and writing; Alpöge and Furman with verification, Jarred Sumner with guiding the investigation, and Eric Easley with orchestrating Lean formalization. Company attribution is source-reported, not independently reproduced here.

Source updated Aug 19, 2026.

Lamzouri · another proof and further proportions →

Youness Lamzouri · Preprint

Author preprint at the cited revision; journal acceptance has not been established by this curation.

Revision & attribution

Source revision: arxiv-v2. Observed Oct 10, 2026.

Lamzouri gives a human-authored proof inspired by the Claude result. Appendix A reports AxiomProver (Axiom Math) autoformalization; this is a different role from discovering the original bound.

Source updated Sep 8, 2026.

Platt–Trudgian · rigorous finite verification →

Dave Platt · Tim Trudgian · Published

Published in Bulletin of the London Mathematical Society, DOI 10.1112/blms.12460. Statements here use the pinned author manuscript, Theorem 1 and Corollary 2.

Revision & attribution

Source revision: arxiv-v1. Observed Oct 10, 2026.

The cited work does not report AI involvement; absence of attribution is not evidence of absence.

Source updated Apr 21, 2020.

History

Statement versions

Statement versions and problem publication versions are separate. A new publication can update context or sources while retaining the same statement.

Assessment history · 2

Assessments retained in these publication records. Earlier statement versions retain their own source histories.

Proved

Scoped theorem in cited source ↗

Only the exact statement, domain and revision cited by this Claim; this is not a resolution of classical RH or independent OpenMath expert assessment.

Source dated Sep 8, 2026 · Observed Oct 10, 2026 · Source passage →

Proved

Scoped theorem in cited source ↗

Only the exact statement, domain and revision cited by this Claim; this is not a resolution of classical RH or independent OpenMath expert assessment.

Source dated Aug 19, 2026 · Observed Oct 10, 2026 · Source passage →

Record details
Claim ID
claim-rh-simple-critical-line-proportion
Statement version
2
SHA-256
da68225442d1dbd2aeb01ff55aa41c0f9a5a800f16a0a83624fd3929eb111fa9

Publication records