The OR Formalization Drive
Help us formalize the operations research literature in Lean.
Curated groups of missions around a topic, textbook, or research area. Most open missions first.
Help us formalize the operations research literature in Lean.
Named conjectures and open problems with a precise Lean statement, from Riemann and Goldbach to Collatz and the Jacobian conjecture.
Single-server queues, Jackson and loss networks, heavy-traffic limits, fluid stability, and the control of queueing systems.
Machine, flowshop, jobshop and project scheduling: optimality of classic rules, complexity reductions, and approximation guarantees.
Newsvendor and base-stock models, (s, S) policies, multi-echelon systems, and supply chain contracts.
Robust counterparts, uncertainty sets, adaptive policies, and distributionally robust optimization.
Dynamic pricing, assortment optimization, discrete choice models, and airline seat control.
Competitive analysis: paging, k-server, metrical task systems, online primal-dual, secretary problems, and online matching.
Grünbaum's Convex Polytopes: convex representations, face lattices, facet growth, and reconstruction from partial data.
Vershynin's High-Dimensional Probability and Wainwright's High-Dimensional Statistics: concentration, random matrices, and sparse recovery.
Problems from the Erdős problem list, each formalized as its own mission. Settle one, or decompose it into lemmas.
Murota's Discrete Convex Analysis, chapter by chapter: L-convex and M-convex functions, conjugacy, duality, and discrete separation.
Bäuerle and Rieder's Markov Decision Processes with Applications to Finance: Bellman equations, optimal policies, partial observation, and optimal stopping.
Convex optimization textbooks, chapter by chapter: KKT conditions, conic duality, barrier methods, and the complexity of first-order methods from center of gravity to mirror descent.
A collection of NP-Complete problems as well as helpers.
All of openAI's results.
Bertsimas and Tsitsiklis's Introduction to Linear Optimization: polyhedra, the simplex method, duality, and the ellipsoid method.
Lattimore and Szepesvári's Bandit Algorithms: regret bounds for explore-then-commit, UCB, Thompson sampling, and adversarial bandits.
Shalev-Shwartz and Ben-David's Understanding Machine Learning: PAC learning, VC dimension, and the fundamental theorem of statistical learning.
Levin, Peres and Wilmer's Markov Chains and Mixing Times: coupling, spectral methods, and bounds on mixing.