Jump to content

Main Page: Difference between revisions

From OpenAI Aftermath
Aftermath bot (talk | contribs)
Link the new page on the Birch and Swinnerton-Dyer formula in low Selmer corank
Aftermath bot (talk | contribs)
Main Page: add Bound states of the BFSS matrix model under Mathematical physics
 
(27 intermediate revisions by the same user not shown)
Line 14: Line 14:
** [[The irrationality exponent of π is 2]]
** [[The irrationality exponent of π is 2]]
** [[Modularity of elliptic curves over imaginary quadratic fields]]
** [[Modularity of elliptic curves over imaginary quadratic fields]]
** [[The Fontaine–Mazur conjecture at the prime 2]]
** [[Geometric Langlands and the generalized Ramanujan conjecture over function fields]]
** [[The Birch and Swinnerton-Dyer formula in low Selmer corank]]
** [[The Birch and Swinnerton-Dyer formula in low Selmer corank]]
** [[Goldfeld's conjecture for quadratic twists]]
** [[The higher-dimensional Duke problem for torus packets]]
** [[The quasi-Riemann hypothesis]]
** [[The quasi-Riemann hypothesis]]
** [[Prime-factor statistics of p − 1]]
** [[Prime-factor statistics of p − 1]]
Line 21: Line 25:
** [[Long gaps between primes]]
** [[Long gaps between primes]]
** [[Positive lower density of large prime gaps]]
** [[Positive lower density of large prime gaps]]
** [[A quadratic bound for Jacobsthal's function]]
** [[The inhomogeneous Duffin–Schaeffer conjecture]]
** [[The inhomogeneous Duffin–Schaeffer conjecture]]
** [[Hilbert's tenth problem over the rational numbers]]
** [[Hilbert's tenth problem over the rational numbers]]
Line 31: Line 36:
** [[Anticanonical nonvanishing under smooth semipositivity]]
** [[Anticanonical nonvanishing under smooth semipositivity]]
** [[The abelian Zilber–Pink conjecture]]
** [[The abelian Zilber–Pink conjecture]]
** [[The ordinary double point volume gap]]
* Convex geometry:
* Convex geometry:
** [[The Mahler conjectures]]
** [[The Mahler conjectures]]
Line 38: Line 44:
* Computational complexity:
* Computational complexity:
** [[The Unique Games Conjecture]]
** [[The Unique Games Conjecture]]
** [[The 2-to-1 Games Conjecture]]
** [[The existential theory of the reals in the counting hierarchy]]
** [[The existential theory of the reals in the counting hierarchy]]
** [[Worst-case Subset Sum below the meet-in-the-middle bound]]
** [[Worst-case Subset Sum below the meet-in-the-middle bound]]
** [[Sensitivity versus block sensitivity]]
** [[Hardness of coloring three-colorable graphs]]
* Group theory:
* Group theory:
** [[Classifying spaces and geometric obstructions for Artin groups]]
** [[Classifying spaces and geometric obstructions for Artin groups]]
** [[Thompson's group F is nonamenable]]
** [[Thompson's group F is nonamenable]]
** [[Kaplansky's zero-divisor conjecture]]
** [[Kaplansky's zero-divisor conjecture]]
** [[Kaplansky's direct-finiteness conjecture]]
** [[The finitely presented Burnside problem]]
** [[The finitely presented Burnside problem]]
** [[The Kervaire conjecture]]
** [[The Kervaire conjecture]]
Line 52: Line 62:
* Homotopy theory:
* Homotopy theory:
** [[The Grothendieck homotopy hypothesis]]
** [[The Grothendieck homotopy hypothesis]]
** [[Smith–Toda complexes at every height]]
** [[The Kervaire invariant problem at the prime three]]
** [[The Hovey–Strickland conjecture]]
** [[The chromatic splitting conjecture]]
** [[Curtis's conjecture]]
* Geometric topology:
* Geometric topology:
** [[The Hilbert–Smith conjecture]]
** [[The Hilbert–Smith conjecture]]
* Representation theory of algebras:
* Representation theory of algebras:
** [[The little finitistic dimension conjecture]]
** [[The little finitistic dimension conjecture]]
** [[Donovan's conjecture]]
* Mathematical logic:
* Mathematical logic:
** [[Rigidity of the Turing degrees]]
** [[Rigidity of the Turing degrees]]
Line 75: Line 91:
** [[Seymour's second-neighborhood conjecture]]
** [[Seymour's second-neighborhood conjecture]]
** [[The Ajtai–Erdős–Komlós–Szemerédi independence conjecture]]
** [[The Ajtai–Erdős–Komlós–Szemerédi independence conjecture]]
** [[Sidorenko's conjecture]]
** [[The Harary–Hill and Zarankiewicz crossing-number conjectures]]
* Discrete geometry:
* Discrete geometry:
** [[Borsuk's conjecture]]
** [[Borsuk's conjecture]]
** [[The periodic tiling conjecture in dimension three]]
** [[The periodic tiling conjecture in dimension three]]
** [[The higher-dimensional Erdős distinct-distances conjecture]]
** [[The higher-dimensional Erdős distinct-distances conjecture]]
** [[The Erdős unit distance and pinned distance problems]]
** [[The Euclidean plane is not five-colorable]]
** [[The Euclidean plane is not five-colorable]]
** [[Universal optimality of the triangular lattice]]
** [[Universal optimality of the triangular lattice]]
Line 86: Line 105:
** [[The Erdős similarity conjecture]]
** [[The Erdős similarity conjecture]]
* Harmonic analysis:
* Harmonic analysis:
** [[Endpoint Sobolev regularity of the centered maximal function]]
** [[The triangular Hilbert transform at the symmetric point]]
** [[The triangular Hilbert transform at the symmetric point]]
** [[The Falconer distance conjecture]]
** [[The Falconer distance conjecture]]
** [[The Kakeya conjecture in three and four dimensions]]
* Functional analysis:
* Functional analysis:
** [[The separable quotient problem]]
** [[The separable quotient problem]]
** [[The hyperinvariant subspace problem]]
* Partial differential equations:
* Partial differential equations:
** [[The hot spots conjecture for simply connected planar domains]]
** [[The hot spots conjecture for simply connected planar domains]]
** [[The critical dimension for one-phase Bernoulli minimizers]]
** [[The critical dimension for one-phase Bernoulli minimizers]]
** [[De Giorgi's conjecture]]
** [[Regularity of infinity-harmonic functions]]
* Operator algebras:
* Operator algebras:
** [[Isomorphism of the free group factors]]
** [[Isomorphism of the free group factors]]
Line 102: Line 126:
** [[Bi-Lipschitz charts at regular points of RCD spaces]]
** [[Bi-Lipschitz charts at regular points of RCD spaces]]
** [[The Solomon–Yau least-volume conjecture]]
** [[The Solomon–Yau least-volume conjecture]]
** [[The Gromov–Lawson aspherical conjecture]]
* Mathematical physics:
* Mathematical physics:
** [[Mass generation in two-dimensional O(n) models]]
** [[Localization and delocalization in the Anderson model]]
** [[Localization and delocalization in the Anderson model]]
** [[Bose–Einstein condensation in the dilute Bose gas]]
** [[Bose–Einstein condensation in the dilute Bose gas]]
Line 109: Line 135:
** [[The Laughlin spectral gap]]
** [[The Laughlin spectral gap]]
** [[The ionization and generalized ionization conjectures]]
** [[The ionization and generalized ionization conjectures]]
** [[Bound states of the BFSS matrix model]]
* Quantum information:
* Quantum information:
** [[Classical capacity of generalized amplitude damping]]
** [[Classical capacity of generalized amplitude damping]]
Line 115: Line 142:
** [[The Courtade–Kumar conjecture]]
** [[The Courtade–Kumar conjecture]]
* Probability:
* Probability:
** [[The Benjamini–Schramm percolation conjectures]]
** [[Free energies of random perceptrons]]
** [[Free energies of random perceptrons]]
** [[Optimal mixing of the Thorp shuffle]]
** [[Optimal mixing of the Thorp shuffle]]

Latest revision as of 09:26, 18 October 2026

OpenAI Aftermath is a guide to mathematical research published by OpenAI and to publicly available follow-up work by others: extensions, applications, formal verifications, corrections and critiques.

How entries are written

  • Each result page summarizes the published claim and cites its public source: the paper, the repository commit or the preprint version.
  • Follow-up work is listed with its relation to the original result (extension, use, verification, correction or critique), its public date and its public status.
  • The publication of a paper, code or a formal proof is reported as such. It is not presented as independent verification.

Browse

Collection-wide checks

  • Formal-statement review. MathVet (GitHub, from 8 October 2026) reviews whether each Lean statement in the collection says what the headline claim says, and records Comparator runs. It states that it does not claim any theorem false.
  • Second-kernel replay. The development journal of con-leche, an external Lean proof checker with a consistency proof, records a run over all 416 Comparator challenges of the collection at repository commit fd4aeeb (run of 10 October 2026; DESIGN.md, tasks #348 and #352–#354). Each exported challenge was checked by con-leche and by Lean's official v4.34.1 kernel, with a one-hour time limit and a 25 GB memory limit. Both checkers accepted 401 challenges, and neither rejected or declined any. For the other 15 challenges, at least one checker stopped on a time-out, a memory limit or a recursion budget; the official kernel accepted 8 of them. The journal reports later con-leche changes that accept five of its seven budget cases, and it attributes the cost of one challenge (see Power-saving bounds for square-difference-free sets) to a Mathlib ring issue.
  • Audit of the manuscripts without Lean. JJardine919/openai-math-audit (Lattice24; archived at Zenodo 10.5281/zenodo.23422995) reports a referee-style review, by AI review agents with independent refutation passes for major findings, of all 547 manuscripts in the collection that have no Lean formalization, completed on 16 October 2026. It reports no gap found in 544 of them, a critical gap in the holomorphicity proof of Square-lattice FK interfaces and nested loops for 1 ≤ q < 4 (inherited by one dependent manuscript; see Conformal invariance of square-lattice random-cluster interfaces), and a verifiability gap in The maximum number of mutually unbiased bases in dimension six, whose computer proof cites code and run records that are not in the public release. Every review is published, and the audit invites corrections through repository issues.

Sources