跳到正文

openai

ten-proofs

Lean certificates accompanying proofs in mathematics and theoretical computer science

README 已保存到本站,可直接阅读

Documentation snapshot

README 快照

本页保存的是公开项目资料快照,阅读过程不需要连接 GitHub。

Ten Advances in Mathematics and Theoretical Computer Science

This repository contains Lean 4 formalizations of the results presented in Ten advances in mathematics and theoretical computer science by OpenAI.

The results

  1. High-dimensional sphere packing: Improved asymptotic upper bounds on sphere-packing density, reaching the Cohn–Elkies threshold. (SpherePacking.lean)
  2. Binary and spherical codes: Exponentially stronger upper bounds for binary codes at every minimum distance, together with corresponding bounds for spherical codes. (MetricCodes.lean)
  3. Non-sofic groups: A construction of a non-sofic group, resolving whether every group admits finite permutation approximations. (NonSoficGroup.lean)
  4. Connes’s rigidity conjecture: A counterexample to the conjecture that certain groups are determined by their group von Neumann algebras. (ConnesRigidity.lean)
  5. Arithmetic circuit complexity: New lower bounds for computing the permanent with arithmetic circuits and formulas, including an $n^4 / \log n$ formula lower bound. (Permanent.lean)
  6. Quantum parallel repetition: Exponential parallel repetition for arbitrary finite, two-player quantum games. (QuantumParallelRepetition.lean)
  7. Closest vector problem: Polynomial-factor hardness of approximation for the closest vector problem, with related consequences for decoding and lattice problems. (GapCVP.lean)
  8. Ehrhart’s volume conjecture: The sharp maximum volume in every dimension for a convex body whose centroid is its only interior lattice point. (EhrhartVolumeInequality.lean)
  9. Multicolor Ramsey numbers: A superexponential lower bound for multicolor triangle Ramsey numbers, resolving Erdős problem 183. (MulticolorTriangleRamsey.lean)
  10. Extremal number conjectures: Counterexamples to the compactness and degeneracy conjectures in extremal graph theory, resolving Erdős problems 146 and 180. (CompactnessAndDegeneracy.lean)

Building the formalizations

The project uses Lean 4.32.0, mathlib, and Lake. With elan installed, fetch the mathlib cache and build all ten formalizations with:

lake exe cache get
lake build All

To build an individual formalization, pass its module name to Lake:

lake build SpherePacking

Independent proof checking

For instructions on checking the formalizations with Comparator, see the ComparatorChallenges README.

Official distribution

获取与安装

暂未发现可确认的官方软件包地址

当前 README 快照没有出现 npm、PyPI、Crates.io、pub.dev 等官方包页链接。本站不会根据仓库名称猜测下载地址。

本站不托管项目文件;需要安装时,请以项目维护者发布的官方文档为准。

使用前核验

本站保存公开资料用于阅读,不代表安全审计或功能背书。安装前请核对许可证、依赖来源和发布签名,不要直接运行来源不明的二进制文件或高权限脚本。