OAI/Computability/MaxCut/Analysis/CubePerm.lean
14 declarations, 0 contain sorry, 0 declared as axioms
- def
OAI.OptimalMaxCut.LongCode.cubePermline 11 - theorem
OAI.OptimalMaxCut.LongCode.cubePerm_applyline 17 - theorem
OAI.OptimalMaxCut.LongCode.degree_cubePermline 20 - theorem
OAI.OptimalMaxCut.LongCode.walsh_cubePermline 26 - def
OAI.OptimalMaxCut.LongCode.reindexline 31 - theorem
OAI.OptimalMaxCut.LongCode.coefficient_reindexline 34 - theorem
OAI.OptimalMaxCut.LongCode.mean_reindexline 41 - theorem
OAI.OptimalMaxCut.LongCode.cutoffInfluence_reindexline 45 - theorem
OAI.OptimalMaxCut.LongCode.cutoffInfluence_nonnegline 55 - def
OAI.OptimalMaxCut.LongCode.Game.averageCodeline 64Source documentation
A real weighted averaging of all pulled-back odd long codes at a right question. The graph/test itself uses only rational probabilities.
noncomputable def averageCode (G : Game X Y E q) (f : X → Cube (Fin q) → ℝ) (y : Y) (z : Cube (Fin q)) : ℝ := …Mentions: OAI.OptimalMaxCut.LongCode.Game
- theorem
OAI.OptimalMaxCut.LongCode.Game.averageCode_boundedline 68 - theorem
OAI.OptimalMaxCut.LongCode.Game.averageCode_meanline 73 - theorem
OAI.OptimalMaxCut.LongCode.Game.averageCode_influenceline 80 - theorem
OAI.OptimalMaxCut.LongCode.Game.decoding_boundline 89Source documentation
Low-degree Fourier influence decodes an actual labeling. There is no assumed decoder or hardness assertion in this inequality.
theorem decoding_bound (G : Game X Y E q) (hq : 0 < q) (K : ℕ) (f : X → Cube (Fin q) → ℝ) (hf : ∀ x z, f x z ∈ Set.Icc (-1 : ℝ) 1) (δ : ℝ) (hsound : G.Sound δ) (ly : Y → Fin q) : G.rightLaw.avg (fun y => (G.edgeLaw y).avg (fun e => cutoffInfluence K ((G.permutation e).symm (ly y)) (f (G.source e)))) ≤ (K : ℝ) * δ := by …Mentions: OAI.OptimalMaxCut.LongCode.Game