import OAI.Combinatorics.ContingencyTables.Counting.CompanionInitializedRestartSemantics import OAI.Combinatorics.ContingencyTables.Counting.CompanionRestartNativeLaw import OAI.Combinatorics.ContingencyTables.Machines.FiniteEncodedBind import OAI.Combinatorics.ContingencyTables.Counting.CompanionRestartPadding namespace OAI /-! # Exact law of the complete executed initializer and restart prefix -/ namespace ContingencyTables.CompanionInitializedRestartProgram open MatchingFPRAS CommonBasesFPRAS FirstSuccess FairBits FiniteObservableTransport open CompanionFactorialApplication CompanionComputedInitial CompanionComputedProposal open CompanionArithmeticProposal CompanionEvaluatedWeightProgram open CompanionOracleDensity TwoLiftStates GridBoundary open scoped BigOperators Classical noncomputable section variable {m n : ℕ} def parameters (A : Instance (Fin m) (Fin n)) (H T N R L : ℕ) (epsilon : TreeFraction.Fraction) : CountingPhaseParametersProgram.Input := ([Fintype.card (Labels A),A.W,H,T,N,R,L],epsilon) def model (A : Instance (Fin m) (Fin n)) (C K H T N R L j : ℕ) (epsilon : TreeFraction.Fraction) (hK : 1 ≤ K) (hW : 100*A.d*K ≤ A.W) (v : Grid (I := Fin (RootedCatalogGrid.freeCount A)) K) (w : ℕ → LabelIndex A → LabelIndex A → TreeFraction.Fraction) (bits : Fin (CompanionInitialDraw.initialBits A (CompanionInitialDraw.precision A (CountingPhaseSchedule.initialPrecision H))+ CompanionRestartProgram.sumBits A C K j (parameters A H T N R L epsilon)) → Bool) : PlainIndex (pairs : List (CompanionRationalUpdates.Pair A)) := let B := CompanionInitialDraw.precision A (CountingPhaseSchedule.initialPrecision H) let widths := CompanionRestartProgram.sourceWidth A C K (parameters A H T N R L epsilon) let split := splitWordEquiv (CompanionInitialDraw.initialBits A B) (CompanionRestartProgram.sumBits A C K j (parameters A H T N R L epsilon)) bits varyingWalk widths (CompanionRestartProgram.sourceStep A C K (parameters A H T N R L epsilon) hK hW v w) (CompanionInitialDraw.draw A B split.1) j (varyingWordEquiv widths j split.2) /-- The actual list program has the complete finite-word law, including every initialization bias, rejected return and fallback. -/ theorem output_padded_sameLaw (A : Instance (Fin m) (Fin n)) (C K H T N R L j padding : ℕ) (hC : 0 < C) (hj : j ≤ rationalHeight A C) (hK : 1 ≤ K) (hW : 100*A.d*K ≤ A.W) (hB : (K:ℝ)=CompanionOracleDensity.binWidth A C) (epsilon : TreeFraction.Fraction) (hxi : 0 < TreeFraction.val (CountingPhaseParametersProgram.noise (parameters A H T N R L epsilon))) (z : View A → ℕ) (v : Grid (I := Fin (RootedCatalogGrid.freeCount A)) K) (w : ℕ → LabelIndex A → LabelIndex A → TreeFraction.Fraction) (estimates : Fin j → TreeFraction.Fraction) (hdegree : ∀ i : Fin j,RootedOracleConfigProgram.rootDegree (CompanionRestartStageProgram.oracleData A C K (i.val+1) (parameters A H T N R L epsilon) z v (List.replicate (wordLength A (CompanionInitialDraw.precision A (CountingPhaseSchedule.initialPrecision H))+ (CompanionRestartProgram.sumBits A C K j (parameters A H T N R L epsilon)+padding)) false)) ≤ wordLength A (CompanionInitialDraw.precision A (CountingPhaseSchedule.initialPrecision H))+ (CompanionRestartProgram.sumBits A C K j (parameters A H T N R L epsilon)+padding)) (hdepth : ∀ i : Fin j,RootedOracleConfigProgram.depth (CompanionRestartStageProgram.oracleData A C K (i.val+1) (parameters A H T N R L epsilon) z v (List.replicate (wordLength A (CompanionInitialDraw.precision A (CountingPhaseSchedule.initialPrecision H))+ (CompanionRestartProgram.sumBits A C K j (parameters A H T N R L epsilon)+padding)) false)) ≤ wordLength A (CompanionInitialDraw.precision A (CountingPhaseSchedule.initialPrecision H))+ (CompanionRestartProgram.sumBits A C K j (parameters A H T N R L epsilon)+padding)) : SameLaw (fun bits : Fin (wordLength A (CompanionInitialDraw.precision A (CountingPhaseSchedule.initialPrecision H))+ (CompanionRestartProgram.sumBits A C K j (parameters A H T N R L epsilon)+padding)) → Bool => output (data A C K H T N R L j epsilon z v w estimates (List.ofFn bits))) (fun bits => encodeSet (coordinateOrder A) (model A C K H T N R L j epsilon hK hW v w bits).val.val) := by let B := CompanionInitialDraw.precision A (CountingPhaseSchedule.initialPrecision H) let p := parameters A H T N R L epsilon let n := CompanionRestartProgram.sumBits A C K j p let reserve := List.replicate (wordLength A B+(n+padding)) false let stageList := CompanionRestartProgram.stagesData A C K j p z v reserve w let init := fun bits : Fin (wordLength A B) → Bool => CompanionRestartInitializer.output (CompanionRestartInitializer.data A C K H T N R L epsilon z v,List.ofFn bits) let realInit := CompanionInitialDraw.draw A B let encode := fun S : PlainIndex (pairs : List (CompanionRationalUpdates.Pair A)) => encodeSet (coordinateOrder A) S.val.val let run := fun code (bits : Fin (n+padding) → Bool) => CompanionRestartProgram.output ((stageList,code),List.ofFn bits) let realRun := fun S (bits : Fin n → Bool) => encode (varyingWalk (CompanionRestartProgram.sourceWidth A C K p) (CompanionRestartProgram.sourceStep A C K p hK hW v w) S j (varyingWordEquiv (CompanionRestartProgram.sourceWidth A C K p) j bits)) have hi : SameLaw init (fun bits => encode (realInit bits)) := CompanionRestartInitializer.output_sameLaw A C K H T N R L epsilon z v have hs : ∀ S,SameLaw (run (encode S)) (realRun S) := by intro S have hn := CompanionRestartProgram.widthSum_data A C K j p z v reserve w S.val.val have hh := CompanionRestartProgram.output_native_sameLaw A C K j hC hj hK hW hB p hxi z v reserve (fun i => by simpa only [reserve,List.length_replicate] using hdegree i) (fun i => by simpa only [reserve,List.length_replicate] using hdepth i) w S exact restart_append_sameLaw (CompanionRestartProgram.baseData A C K j p z v reserve w S.val.val) n hn (realRun S) hh padding have hf := flat_encoded_bind (wordLength A B) (n+padding) (CompanionInitialDraw.initialBits A B) n init realInit encode run realRun hi hs intro phi have h := hf phi have he : (fun bits : Fin (wordLength A B+(n+padding)) → Bool => output (data A C K H T N R L j epsilon z v w estimates (List.ofFn bits)))= (fun bits => run (init (splitWordEquiv (wordLength A B) (n+padding) bits).1) (splitWordEquiv (wordLength A B) (n+padding) bits).2) := by funext bits exact output_split A C K H T N R L j (n+padding) epsilon z v w estimates bits rw [he] exact h /-- When the supplied restart time is the computed paper schedule, the reference experiment is precisely initializedStages. -/ theorem model_eq_initializedStages (A : Instance (Fin m) (Fin n)) (C K H N R L j : ℕ) (epsilon : TreeFraction.Fraction) (hK : 1 ≤ K) (hW : 100*A.d*K ≤ A.W) (v : Grid (I := Fin (RootedCatalogGrid.freeCount A)) K) (w : ℕ → LabelIndex A → LabelIndex A → TreeFraction.Fraction) (bits : Fin (RootedRestartWords.initialStageBits A C K H L (CountingPhaseParametersProgram.precision (parameters A H (CompanionTargetMixing.restartTime A H L) N R L epsilon)) R (CountingPhaseSchedule.initialPrecision H) j (TreeFraction.val (CountingPhaseParametersProgram.noise (parameters A H (CompanionTargetMixing.restartTime A H L) N R L epsilon)))) → Bool) : model A C K H (CompanionTargetMixing.restartTime A H L) N R L j epsilon hK hW v w bits= RootedRestartWords.initializedStages A (RootedCompletion.rowColumn A.T) C K H L (CountingPhaseParametersProgram.precision (parameters A H (CompanionTargetMixing.restartTime A H L) N R L epsilon)) R (CountingPhaseSchedule.initialPrecision H) j hK hW (TreeFraction.val (CountingPhaseParametersProgram.noise (parameters A H (CompanionTargetMixing.restartTime A H L) N R L epsilon))) (RootedCatalogGrid.gridEquiv A K v) (fun i => sourceWeights A (w i)) bits := rfl end end ContingencyTables.CompanionInitializedRestartProgram end OAI