Bandit Algorithms
Tor Lattimore · Csaba Szepesvári
Cambridge University Press, 2020; existing author-online source maps retained
Bibliographic metadata checked 2026-09-09. Page and theorem mappings are separately audited.Source-mapped reading view
Ten core teaching routes plus source Chapters 13–17. Broader Bandit classification, techniques, theorem-level bounds and research frontiers are separate linked views rather than pseudo-chapters.
Tor Lattimore · Csaba Szepesvári
Cambridge University Press, 2020; existing author-online source maps retained
Bibliographic metadata checked 2026-09-09. Page and theorem mappings are separately audited.These ten curated routes keep their original numbering. They are not the textbook's chapter numbers and do not cover the entire book.
Required main-text contracts have prior merged compilation evidence; optional notes and exercises are not all complete. This build's verification banner states the local gate status.
T_i ≤ n/2; Theorem 17.4 uses 0 < δ ≤ 1/32, c = 1/160 and C = 64.Theorem 13.1 compiles through Chapter 15 with c=1/54. Chapter 13 also compiles fixed-class minimax-optimality, the canonical iid Gaussian empirical-mean law, midpoint error events, the Chernoff companion, and both exact Mills-ratio bounds of Eq. (13.4) rescaled to the printed Eq. (13.1). The broader 1-subgaussian class with gaps in [0,1] now has a compiled fixed-horizon MOSS upper bound and constant-factor near-minimax theorem. The frozen main-text contract is complete: PR #105, authoritative-main checks, Pages deployment and live desktop/mobile acceptance pass for b38630c. Notes and Exercises remain optional and unformalized.
Chapter 14 Compiled Foundations of Information Theory 160–169 print · 195–206 PDFThe frozen required body is compiled: Huffman optimality, exact-real arithmetic block coding and converse, finite/partition/common-density KL, the source affinity/overlap route, and Gaussian testing. Independent review, PR #106, main run 33959196451, Pages and live desktop/mobile acceptance passed. The singleton and uniform-code qualifications below are part of the accepted boundary; optional Notes/Exercises are not claimed complete.
Chapter 15 Compiled Minimax Lower Bounds 170–176 print · 207–214 PDFThe frozen required body (§15.1–15.2) is compiled: Lemma 15.1 and Theorem 15.2 use one arbitrary randomized HistoryAlgorithm, the canonical finite-history law, exact unit-Gaussian construction and 1/27 constant, with worst-case and minimax consequences. Optional Exercise 15.7 remains partial: measurable-map KL contraction reuses Chapter 14's trim API, and the fixed-horizon observation corollary compiles; stopped-history information and F_tau factorization remain open. Notes and other exercises are outside the required-body completion contract.
Chapter 16 Compiled Instance-Dependent Lower Bounds 177–184 print · 215–223 PDFDefinition 16.1, Theorem 16.2, Lemma 16.3, and Theorem 16.4 compile with the source quantifiers, information branches, constants, and positive-part placement.
Chapter 17 Compiled High-Probability Lower Bounds 185–190 print · 224–230 PDFAll Chapter 17 body endpoints pass the full Lean/Tests/harness gate, including same-policy hard-law coupling and deterministic matrix extraction; integrated into main via PR #101. Approved corrections: Claim 17.6 uses T_i ≤ n/2; Theorem 17.4 uses 0 < δ ≤ 1/32 with c=1/160, C=64 and a strict CDF tail. This is corrected-chapter closure, not a proof of the unchanged printed statements or every optional exercise.
This section used to mix a small set of “Extended Chapters” with BanditRLwiki. It is now only a navigation layer: classification, techniques, literature bounds and open problems have different truth contracts and live on separate pages.
Learn the landscape
Settings, objectives, methods, resource/oracle models and application bridges—including the full long-tail list and quantum bandits.
Learn the mathematical moves
Which new proof/algorithmic technique each setting needs: robust estimation, zooming, RKHS information gain, combinatorial relaxation, primal–dual control, quantum estimation/testing and more.
Read theorem-level evidence
Compatible upper/lower bounds, primary theorem sources, assumptions and the exact local Lean boundary.
Research frontier
Source-traceable posed → partial → resolved histories. Literature openness is never inferred from missing Lean.
Lean formalization frontier → · Functor Hypergraph → · Underlying Lean Graph →