arXiv:2606.17303v1
Abstract
The irrationality of e+pi remains open, despite the separate transcendence of e and pi. This paper studies the problem from the viewpoint of finite irrationality certificates and gives a bounded no-go audit for low-complexity Apéry-type proof mechanisms. First, we prove exact equivalences between the hypothesis e+pi in Q and eventual factorial-arithmetic phenomena: a ceiling recurrence, a factorial-Cantor digit condition, and a divisibility criterion. These criteria identify what rationality would force, while showing why tail conditions are not finite obstructions. Second, we formulate an Apéry-type certificate framework based on integer linear forms L_n = A_n(e+pi)+B_n with A_n,B_n in Z, L_n nonzero, and |L_n| tending to zero. A mixed integration-by-parts identity produces such forms from integer polynomials. We then audit several low-complexity constructions, including mixed Padé approximation, crossed separate approximations to e and pi, simple J-fractions, holonomic ansatzes, Rodrigues-type families, and an integer kernel-lattice search. The main contribution is a rigid boundary probe: no-go filters marking a tested zone where analytic smallness is destroyed by denominator clearing, coefficient growth, primitive reduction, or continued-fraction shadows. In the final kernel-lattice audit, 145 raw candidates reduce to 133 primitive records; the best signals are dominated by continued-fraction shadows, while non-CF candidates do not form a degree-continuing family. Thus, within the tested low-complexity families, no non-circular Apéry-type mechanism for e+pi is found.
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Audit summary
Not a correctness certificate. A “Correct” result may include yellow typos or minor formal corrections that do not affect substantive soundness. It means this audit found no unresolved substantive error under the stated criteria; it does not replace expert scrutiny or formal verification.
Current report
Detailed mathematical audit
01Statements3 reported findingsContains unsupported statements
The exact ceiling-recurrence, factorial-digit, divisibility, certificate, and mixed-kernel statements are correct. The paper's other central contribution is a bounded computational no-go audit, but the information supplied does not permit independent verification of its reported search outcome. No mathematical theorem was found to be false.
The three factorial-tail criteria are exact
Pages 4–7 · Theorems 3.1, 3.3, and 3.4 · arXiv:2606.17303v1
The recurrence for the factorial tail of makes eventual rationality equivalent to the ceiling recurrence for . The factorial-Cantor digit identity converts this recurrence exactly into . Finally, lies in , so eventual divisibility by forces it to vanish. Both directions of all three equivalences are thereby established.
Full paper, version 1 ↗The certificate criterion and mixed-kernel identity are valid
Pages 3 and 7–8 · Lemma 2.2 and Proposition 4.2 · arXiv:2606.17303v1
If and is a nonzero integer linear form, then is a nonzero integer, so ; hence a sequence tending to zero proves irrationality. Repeated integration by parts gives , and adding yields the displayed integer linear form in .
Full paper, version 1 ↗The final bounded-search outcome is not independently verifiable
Pages 12–16 · Computational finding 7.2 and Appendices B–C · arXiv:2606.17303v1
The abstract and Computational finding 7.2 report that 145 raw candidates reduce to 133 classified primitive records and that no non-CF degree-continuing family appears. Appendix B gives only a generic protocol: it does not identify the actual structured polynomial bases, degree ranges, sampling grid, lattice construction and objective, reduction parameters, candidate records, or a machine-checkable output certificate. Appendix C also lists 32 convergent shadows, 5 semiconvergent shadows, and 95 non-CF records, which sum to 132 rather than the asserted 133. The available material therefore neither reproduces the bounded search nor determines which count should be corrected. This is an evidentiary limitation, not evidence that the reported conclusion is false.
Full paper, version 1 ↗02Proofs3 reported findingsContains unverified proofs
All formal theorem and lemma proofs are correct and complete. The computational finding cannot be audited from the generic protocol and summary counts supplied, so the bounded-search component remains unverified rather than disproved.
The formal certificate, tail, and kernel arguments are complete
Pages 3–9 · Lemma 2.2, Section 3, Proposition 4.2, and Lemma 5.1 · arXiv:2606.17303v1
The contradiction in the certificate lemma, the bounded-solution argument for the ceiling recurrence, factorial-digit extraction, divisibility reduction, integration-by-parts identity, and denominator-clearing filter all follow exactly from the displayed equations. Endpoint ambiguities in factorial expansions are excluded by the irrationality of , and no missing direction or case was found.
The computational audit lacks a reproducible verification record
Pages 15–16 · Appendices B–C · arXiv:2606.17303v1
To verify the finite-search conclusion one must reconstruct the exact search space and check every retained record, its primitive reduction, its continued-fraction classification, and the claimed absence of a degree-continuing family. The paper supplies an outline of these steps but not the instantiated bases, bounds, lattice inputs, outputs, or certificate. The category totals in Appendix C also leave one of the asserted 133 records unaccounted for. A fixed data file and executable specification, together with exact or interval-certified residuals and a complete classification table, would resolve this proof obligation.
The displayed degree-14 continued-fraction shadow is correctly certified
Page 16 · Appendix D · arXiv:2606.17303v1
The displayed continued-fraction prefix gives consecutive convergents and , whose mediant is . The certified inequalities place between and that mediant, exactly the corresponding continued-fraction cylinder. Thus is the stated convergent, and the strict inequalities also certify that its integer linear form is nonzero. This verifies the showcased candidate, but not the omitted full search record.
03Novelty0 reported findingsNo non-novelty findings
No non-novelty findings.