Analytic number theory

The Quasi-Riemann Hypothesis

A zero-free half-plane Re(s) > 7/8

199 pages67 claims indexed28 referencesManuscript 2026-09-30

The proposed argument

The paper tries to contradict the existence of a rightmost possible zero in an entire Hecke L-function family. It constructs a completed cubic-theta sum with two exact representations: reflection gives a small direct bound, while Poisson summation exposes a principal Mellin signal containing the reciprocal of the target L-function. Bounds for the other rows would continue that reciprocal across the possible zeros. A balanced first stage claims a zero-free half-plane to the right of 11/12; prime compensation and two additional moment inductions claim 7/8. The full Hecke family is needed because Poisson introduces twists, even when the final target is zeta. These are the manuscript’s proposed steps, not a completed verification of its difficult inputs.

This review concerns the 199-page September 30 manuscript. The October 5 paper claiming 11/12 and the Landau–Siegel companion are separate manuscripts whose full proofs were outside this review.

Reading order

  1. 01

    §§1–2 — continuation

    Replace nonvanishing with a uniform reciprocal-continuation problem: a direct bound and a common power saving approximation force every reciprocal through the rightmost family zeros.

  2. 02

    §§3–6 — base reflection

    Build one completed cubic-theta probe and bound it through its reflected form; balanced scales give the low Z^(1/4+epsilon) estimate.

  3. 03

    §§7–11 — first high

    Poisson-expand the same probe, isolate its principal reciprocal signal, count troublesome nonprincipal rows through saturated inverse witnesses and the sextic sieve, then close 11/12.

  4. 04

    §§12–16 — compensated low

    Insert independent selected prime slots and asymmetric scales; obtain a new reflected low bound and an exact holomorphic local correction with controlled errors.

  5. 05

    §17 — marked inverse

    Prove the selected prime inverse moment by a canonical invariant, terminal reflected energy and two masked Poisson transforms; initialize it and amplify the no-slot estimate.

  6. 06

    §18 — plain fourth

    Prove the plain-witness fourth moment by decreasing effective width; center equal-product-scale comparisons so fixed inducing-character main terms cancel.

  7. 07

    §19 — refined counts

    Turn the two simultaneous witnesses and independent short prime slots into complementary inverse/plain row counts, with explicit slot capacity and supply margins.

  8. 08

    §20 — final closure

    Balance the complementary counts, certify a small positive endpoint margin, reserve all losses before choosing target dependent heights, and apply continuation plus quadratic transfer.

Follow the dependencies

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Select a claim to see its prerequisites and consumers. Edge labels distinguish proof inputs, source references, background and exclusions.

Your independent assessment

Trace the two moment reductions through their prerequisites. For each imported result, record the exact hypotheses needed and where the manuscript establishes them. Assess the final numerical balance separately from those analytic and arithmetic inputs.

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