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| import OAI.Combinatorics.EditApproximation.Binary.BinaryActionSelection | |
| import OAI.Combinatorics.EditApproximation.Binary.BinaryActualBandOptimizer | |
| namespace OAI | |
| /-! Materialized Boolean vertices retain their band labels. The resulting | |
| selected action, including every tie, is the action used by the online | |
| sampler in the accuracy development. -/ | |
| namespace EditApproximation | |
| namespace BinaryFraction | |
| def labeledBandVerticesWithWork {M d : ℕ} {σ : Type*} [DecidableEq σ] | |
| (coordinates : Vector (Fin M × σ) d) (mass : Vector BinaryFraction M) | |
| (band : List (Fin M → σ)) : List ((Fin M → σ) × Vector BinaryFraction d) × ℕ := | |
| let total := bandMassTotalWithWork mass | |
| let vertices := band.map fun action => | |
| let vertex := vectorMapWithWork d fun i => | |
| bandCoordinateWithWork mass total.1 action (coordinates.get i) | |
| ((action, vertex.1), vertex.2) | |
| (vertices.map Prod.fst, total.2 + (vertices.map Prod.snd).sum + 8 * band.length) | |
| theorem labeledBandVerticesWithWork_vectors {M d : ℕ} {σ : Type*} [DecidableEq σ] | |
| (coordinates : Vector (Fin M × σ) d) (mass : Vector BinaryFraction M) | |
| (band : List (Fin M → σ)) : | |
| (labeledBandVerticesWithWork coordinates mass band).1.map Prod.snd = | |
| (bandVerticesWithWork coordinates mass band).1 := by | |
| simp only [labeledBandVerticesWithWork, bandVerticesWithWork, List.map_map, Function.comp_def] | |
| theorem labeledBandVerticesWithWork_values {M d : ℕ} {σ : Type*} [DecidableEq σ] | |
| (coordinates : Vector (Fin M × σ) d) (mass : Vector BinaryFraction M) | |
| (band : List (Fin M → σ)) : | |
| (labeledBandVerticesWithWork coordinates mass band).1.map | |
| (fun pair => (pair.1, pair.2.map value)) = | |
| band.map (fun action => (action, | |
| restrictOptimizerVector coordinates (actionVector (fun j => (mass.get j).value) action))) := by | |
| simp only [labeledBandVerticesWithWork, List.map_map, Function.comp_def] | |
| apply List.map_congr_left | |
| intro action _ | |
| apply Prod.ext | |
| · rfl | |
| apply Vector.ext | |
| intro i hi | |
| simp only [Vector.getElem_map] | |
| change ((vectorMapWithWork (α := BinaryFraction) d _).1.get ⟨i, hi⟩).value = | |
| (restrictOptimizerVector coordinates (actionVector (fun j => (mass.get j).value) action)).get ⟨i, hi⟩ | |
| rw [vectorMapWithWork_value, bandCoordinateWithWork_value, restrictOptimizerVector_get] | |
| theorem labeledBandVerticesWithWork_cost {M d : ℕ} {σ : Type*} [DecidableEq σ] | |
| (coordinates : Vector (Fin M × σ) d) (mass : Vector BinaryFraction M) | |
| (band : List (Fin M → σ)) : | |
| (labeledBandVerticesWithWork coordinates mass band).2 = | |
| (bandVerticesWithWork coordinates mass band).2 + 2 * band.length := by | |
| simp only [labeledBandVerticesWithWork, bandVerticesWithWork, List.map_map, Function.comp_def] | |
| omega | |
| def preparedBandActionWithWork {M : ℕ} {σ : Type*} [DecidableEq σ] | |
| (mass : Vector BinaryFraction M) (table : ℕ → Fin M × σ → BinaryFraction) | |
| (eta kappa : BinaryFraction) (band : List (Fin M → σ)) (G j t : ℕ) : | |
| Option (Fin M → σ) × ℕ := | |
| let coordinates := listedBandCoordinateVector band | |
| let vertices := labeledBandVerticesWithWork coordinates mass band | |
| let linear := vectorMapWithWork _ fun i => | |
| onlineLinearWithWork (fun j => mass.get j) table eta kappa t (coordinates.get i) | |
| let selected := selectionWithWork vertices.1 linear.1 G j | |
| (selected.1, vertices.2 + linear.2 + selected.2 + 2) | |
| theorem preparedBandActionWithWork_value {M : ℕ} {σ : Type*} [DecidableEq σ] | |
| (mass : Vector BinaryFraction M) (table : ℕ → Fin M × σ → BinaryFraction) | |
| (eta kappa : BinaryFraction) (band : List (Fin M → σ)) (hband : band ≠ []) (G j t : ℕ) : | |
| (preparedBandActionWithWork mass table eta kappa band G j t).1.getD (band.head hband) = | |
| finiteOptimizerAction band hband (fun i => (mass.get i).value) | |
| (rationalOnlineLinear eta.value kappa.value | |
| (childGain (fun i => (mass.get i).value) (fun s i => (table s i).value)) | |
| (childDecrement (fun i => (mass.get i).value) (fun s i => (table s i).value)) t) G j := by | |
| let coordinates := listedBandCoordinateVector band | |
| let linear := rationalOnlineLinear eta.value kappa.value | |
| (childGain (fun i => (mass.get i).value) (fun s i => (table s i).value)) | |
| (childDecrement (fun i => (mass.get i).value) (fun s i => (table s i).value)) t | |
| have hl : (vectorMapWithWork _ (fun i => onlineLinearWithWork | |
| (fun k => mass.get k) table eta kappa t (coordinates.get i))).1.map value = | |
| restrictOptimizerVector coordinates linear := by | |
| apply Vector.ext | |
| intro i hi | |
| simp only [Vector.getElem_map] | |
| change ((vectorMapWithWork (α := BinaryFraction) _ _).1.get ⟨i, hi⟩).value = | |
| (restrictOptimizerVector coordinates linear).get ⟨i, hi⟩ | |
| rw [vectorMapWithWork_value, onlineLinearWithWork_value, restrictOptimizerVector_get] | |
| change (selectionWithWork (labeledBandVerticesWithWork coordinates mass band).1 | |
| (vectorMapWithWork _ (fun i => onlineLinearWithWork | |
| (fun k => mass.get k) table eta kappa t (coordinates.get i))).1 G j).1.getD _ = _ | |
| rw [selectionWithWork_value, labeledBandVerticesWithWork_values, hl] | |
| exact materializedBandActionWithWork_value band hband (fun i => (mass.get i).value) linear G j | |
| def preparedBandActionBitBudget (M d vertices G K t Be Bk Bm Bt E : ℕ) : ℕ := | |
| bandPreparationBitBudget M d vertices Bm + 2 * vertices + | |
| d * (onlineLinearBitBudget Be Bk Bm Bt t + 6) + | |
| selectionBitBudget d vertices G K (bandVertexWordBudget M Bm) (bandVertexWordBudget M Bm) | |
| (onlineLinearStorageBudget Be Bk Bm Bt t) (E * (2 * t + 1)) + 2 | |
| theorem preparedBandActionWithWork_cost {M : ℕ} {σ : Type*} [DecidableEq σ] | |
| (mass : Vector BinaryFraction M) (table : ℕ → Fin M × σ → BinaryFraction) | |
| (eta kappa : BinaryFraction) (band : List (Fin M → σ)) (G K t Be Bk Bm Bt E : ℕ) | |
| (hband : band ≠ []) (he : eta.width ≤ Be) (hk : kappa.width ≤ Bk) | |
| (hm : ∀ j, (mass.get j).width ≤ Bm) (hmpos : ∀ j, 0 < (mass.get j).value) | |
| (ht : ∀ s ≤ t + 1, ∀ i : Fin (listedBandCoordinates band).length, | |
| (table s ((listedBandCoordinateVector band).get i)).width ≤ Bt) | |
| (heabs : |eta.value| ≤ E) (hkrange : 0 ≤ kappa.value ∧ kappa.value ≤ 1) | |
| (htrange : ∀ s ≤ t + 1, ∀ i : Fin (listedBandCoordinates band).length, | |
| 0 ≤ (table s ((listedBandCoordinateVector band).get i)).value ∧ | |
| (table s ((listedBandCoordinateVector band).get i)).value ≤ | |
| (mass.get ((listedBandCoordinateVector band).get i).1).value) : | |
| (preparedBandActionWithWork mass table eta kappa band G K t).2 ≤ | |
| preparedBandActionBitBudget M (listedBandCoordinates band).length band.length G K t Be Bk Bm Bt E := by | |
| let coordinates := listedBandCoordinateVector band | |
| let vertices := (labeledBandVerticesWithWork coordinates mass band).1 | |
| let linear := (vectorMapWithWork _ fun i => | |
| onlineLinearWithWork (fun j => mass.get j) table eta kappa t (coordinates.get i)).1 | |
| have hlength : vertices.length = band.length := by | |
| simp only [vertices, labeledBandVerticesWithWork, List.length_map] | |
| have hvertices : vertices ≠ [] := by | |
| intro h | |
| rw [h, List.length_nil] at hlength | |
| exact hband (List.length_eq_zero_iff.mp hlength.symm) | |
| have hv (v : (Fin M → σ) × Vector BinaryFraction (listedBandCoordinates band).length) | |
| (hmem : v ∈ vertices) (i : Fin (listedBandCoordinates band).length) := | |
| bandVerticesWithWork_input_bounds coordinates mass band Bm hm hmpos v.2 | |
| (by rw [← labeledBandVerticesWithWork_vectors] | |
| exact List.mem_map.mpr ⟨v, hmem, rfl⟩) i | |
| have hlwidth (i : Fin (listedBandCoordinates band).length) : | |
| (linear.get i).width ≤ onlineLinearStorageBudget Be Bk Bm Bt t := by | |
| simp only [linear, vectorMapWithWork_value] | |
| exact onlineLinearWithWork_storage (fun j => mass.get j) table eta kappa t | |
| (coordinates.get i) Be Bk Bm Bt he hk (hm _) (fun s hs => ht s hs i) | |
| have hlvalue (i : Fin (listedBandCoordinates band).length) : | |
| |(linear.get i).value| ≤ (E * (2 * t + 1) : ℕ) := by | |
| simp only [linear, vectorMapWithWork_value, onlineLinearWithWork_value] | |
| have h := rationalOnlineLinear_abs (fun j => (mass.get j).value) | |
| (fun s j => (table s j).value) eta.value kappa.value t E (coordinates.get i) | |
| heabs (hmpos _) hkrange (fun s hs => htrange s hs i) | |
| simpa only [Nat.cast_mul, Nat.cast_add, Nat.cast_ofNat, Nat.cast_one] using h | |
| have hc := selectionWithWork_cost vertices linear G K (bandVertexWordBudget M Bm) | |
| (bandVertexWordBudget M Bm) (onlineLinearStorageBudget Be Bk Bm Bt t) (E * (2 * t + 1)) | |
| hvertices (fun v hv' i => ⟨(hv v hv' i).1, (hv v hv' i).2.1, (hv v hv' i).2.2.1⟩) | |
| (fun v hv' i => (hv v hv' i).2.2.2) hlwidth hlvalue | |
| rw [hlength] at hc | |
| have hp := bandVerticesWithWork_cost coordinates mass band Bm hm | |
| have hl := vectorMapWithWork_cost_le _ | |
| (fun i => onlineLinearWithWork (fun j => mass.get j) table eta kappa t (coordinates.get i)) | |
| (onlineLinearBitBudget Be Bk Bm Bt t) (fun i => onlineLinearWithWork_cost | |
| (fun j => mass.get j) table eta kappa t (coordinates.get i) Be Bk Bm Bt | |
| he hk (hm _) (fun s hs => ht s hs i)) | |
| change (labeledBandVerticesWithWork coordinates mass band).2 + | |
| (vectorMapWithWork _ (fun i => onlineLinearWithWork (fun j => mass.get j) | |
| table eta kappa t (coordinates.get i))).2 + | |
| (selectionWithWork vertices linear G K).2 + 2 ≤ _ | |
| rw [labeledBandVerticesWithWork_cost] | |
| unfold preparedBandActionBitBudget | |
| omega | |
| def bandActionWithWork {M ny : ℕ} (b : ℕ) | |
| (initial : Fin M → TargetInterval ny → BinaryFraction) | |
| (table : ℕ → Fin M × TargetInterval ny → BinaryFraction) | |
| (eta kappa : BinaryFraction) (band : List (Fin M → TargetInterval ny)) (G j t : ℕ) : | |
| Option (Fin M → TargetInterval ny) × ℕ := | |
| let mass := envelopeVectorWithWork b band initial | |
| let selected := preparedBandActionWithWork mass.1 table eta kappa band G j t | |
| (selected.1, mass.2 + selected.2 + 1) | |
| theorem bandActionWithWork_value {M ny : ℕ} (b : ℕ) | |
| (initial : Fin M → TargetInterval ny → BinaryFraction) | |
| (table : ℕ → Fin M × TargetInterval ny → BinaryFraction) | |
| (eta kappa : BinaryFraction) (band : List (Fin M → TargetInterval ny)) | |
| (hband : band ≠ []) (G j t : ℕ) (hb : 0 < b) : | |
| (bandActionWithWork b initial table eta kappa band G j t).1.getD (band.head hband) = | |
| finiteOptimizerAction band hband (bandChildEnvelope b band (fun i q => (initial i q).value)) | |
| (rationalOnlineLinear eta.value kappa.value | |
| (childGain (bandChildEnvelope b band (fun i q => (initial i q).value)) | |
| (fun s i => (table s i).value)) | |
| (childDecrement (bandChildEnvelope b band (fun i q => (initial i q).value)) | |
| (fun s i => (table s i).value)) t) G j := by | |
| change (preparedBandActionWithWork (envelopeVectorWithWork b band initial).1 | |
| table eta kappa band G j t).1.getD _ = _ | |
| rw [preparedBandActionWithWork_value] | |
| have hm : (fun i => ((envelopeVectorWithWork b band initial).1.get i).value) = | |
| bandChildEnvelope b band (fun i q => (initial i q).value) := by | |
| funext i | |
| exact envelopeVectorWithWork_value b band initial hb i | |
| rw [hm] | |
| def bandActionBitBudget (M d b vertices G K t Be Bk Bi Bt E : ℕ) : ℕ := | |
| M * (bandEnvelopeBitBudget b M vertices Bi + 6) + | |
| preparedBandActionBitBudget M d vertices G K t Be Bk | |
| (3 * bandEnvelopeWordBudget b M Bi + 1) Bt E + 1 | |
| theorem bandActionWithWork_cost {M ny : ℕ} (b : ℕ) | |
| (initial : Fin M → TargetInterval ny → BinaryFraction) | |
| (table : ℕ → Fin M × TargetInterval ny → BinaryFraction) | |
| (eta kappa : BinaryFraction) (band : List (Fin M → TargetInterval ny)) | |
| (G K t Be Bk Bi Bt E : ℕ) (hband : band ≠ []) (hb : 0 < b) (hM : 0 < M) | |
| (he : eta.width ≤ Be) (hk : kappa.width ≤ Bk) | |
| (hi : ∀ action ∈ band, ∀ j, (initial j (action j)).width ≤ Bi) | |
| (ht : ∀ s ≤ t + 1, ∀ i : Fin (listedBandCoordinates band).length, | |
| (table s ((listedBandCoordinateVector band).get i)).width ≤ Bt) | |
| (heabs : |eta.value| ≤ E) (hkrange : 0 ≤ kappa.value ∧ kappa.value ≤ 1) | |
| (htrange : ∀ s ≤ t + 1, ∀ i : Fin (listedBandCoordinates band).length, | |
| 0 ≤ (table s ((listedBandCoordinateVector band).get i)).value ∧ | |
| (table s ((listedBandCoordinateVector band).get i)).value ≤ | |
| (initial ((listedBandCoordinateVector band).get i).1 | |
| ((listedBandCoordinateVector band).get i).2).value) : | |
| (bandActionWithWork b initial table eta kappa band G K t).2 ≤ | |
| bandActionBitBudget M (listedBandCoordinates band).length b band.length G K t Be Bk Bi Bt E := by | |
| let coordinates := listedBandCoordinateVector band | |
| let mass := (envelopeVectorWithWork b band initial).1 | |
| have hmv (j : Fin M) : (mass.get j).value = | |
| bandChildEnvelope b band (fun k q => (initial k q).value) j := | |
| envelopeVectorWithWork_value b band initial hb j | |
| have hm (j : Fin M) : (mass.get j).width ≤ 3 * bandEnvelopeWordBudget b M Bi + 1 := by | |
| simp only [mass, envelopeVectorWithWork, vectorMapWithWork_value] | |
| exact bandEnvelopeWithWork_width b band initial j Bi (fun action ha => hi action ha j) | |
| have hmpos (j : Fin M) : 0 < (mass.get j).value := by | |
| rw [hmv] | |
| exact lt_of_lt_of_le (div_pos (by exact_mod_cast hb) (by exact_mod_cast hM)) | |
| (bandChildEnvelope_lower b band (fun j q => (initial j q).value) j).1 | |
| have hnormalized (s : ℕ) (hs : s ≤ t + 1) (i : Fin (listedBandCoordinates band).length) : | |
| 0 ≤ (table s (coordinates.get i)).value ∧ | |
| (table s (coordinates.get i)).value ≤ (mass.get (coordinates.get i).1).value := by | |
| refine ⟨(htrange s hs i).1, ?_⟩ | |
| obtain ⟨action, ha, heq⟩ := listedBandCoordinateVector_coverage band i | |
| have henv := (bandChildEnvelope_lower b band (fun j q => (initial j q).value) | |
| (coordinates.get i).1).2 action ha | |
| rw [heq] at henv | |
| rw [hmv] | |
| exact (htrange s hs i).2.trans henv | |
| have hp := preparedBandActionWithWork_cost mass table eta kappa band G K t | |
| Be Bk (3 * bandEnvelopeWordBudget b M Bi + 1) Bt E hband he hk hm hmpos ht heabs hkrange hnormalized | |
| have hc := vectorMapWithWork_cost_le M (bandEnvelopeWithWork b band initial) | |
| (bandEnvelopeBitBudget b M band.length Bi) | |
| (fun j => bandEnvelopeWithWork_cost b band initial j Bi (fun action ha => hi action ha j)) | |
| change (envelopeVectorWithWork b band initial).2 + | |
| (preparedBandActionWithWork mass table eta kappa band G K t).2 + 1 ≤ _ | |
| change (envelopeVectorWithWork b band initial).2 ≤ _ at hc | |
| unfold bandActionBitBudget | |
| omega | |
| end BinaryFraction | |
| end EditApproximation | |
| end OAI | |