import OAI.Combinatorics.EditApproximation.Binary.BinaryBufferInputBounds import OAI.Combinatorics.EditApproximation.Queries.QueryLocalBuffers import OAI.Combinatorics.EditApproximation.Queries.QueryHistoryInputs namespace OAI /-! Numeric input records for the actual adaptive buffers. Earlier values are bounded by the separately gathered child-initial table, including at keys absent from the buffers, where the executable lookup returns zero. -/ namespace EditApproximation.BinaryFraction theorem queryGatheredRefinementHistory_range {nx ny M : ℕ} (parent : TargetInterval nx) (N P F exponent t Rp : ℕ) (hP : 0 < P) (a : BinaryFraction) (parentInitial : TargetInterval ny → BinaryFraction × ℕ) (hp : ∀ r, (parentInitial r).2 ≤ Rp) (q : TargetInterval ny) (historical : Fin M × ℕ × TargetInterval ny → BinaryFraction) (initial : Fin M × TargetInterval ny → BinaryFraction) (hnonneg : ∀ input, 0 ≤ (historical input).value) (hinitial : ∀ input, 0 ≤ (initial input).value) (hbound : ∀ input, (historical input).value ≤ (initial (input.1, input.2.2)).value) (s : ℕ) (input : Fin M × TargetInterval ny) : let earlier := (queryEarlierInputsWithWork M parent N P F exponent t hP a parentInitial q).1 let band := (queryBandInputsWithWork M parent N P F exponent hP a parentInitial q).1 0 ≤ (queryHistoryReadWithWork earlier (earlier.map historical) s input).1.value ∧ (queryHistoryReadWithWork earlier (earlier.map historical) s input).1.value ≤ (queryChildReadWithWork band (band.map initial) input.1 input.2).1.value := by have h := gatheredRefinementHistory_range parent N P F exponent t a.value (fun r => (parentInitial r).1.value) q queryHistoryEqualWithWork coordinateEqualWithWork queryHistoryEqualWithWork_value coordinateEqualWithWork_value historical initial hnonneg hinitial hbound (input.1, s, input.2) simpa only [queryHistoryReadWithWork, queryChildReadWithWork, queryEarlierInputsWithWork_value M parent N P F exponent t hP a parentInitial q Rp hp, queryBandInputsWithWork_value M parent N P F exponent hP a parentInitial q Rp hp] using h theorem queryBufferedRefinementInputBounds {nx ny M : ℕ} (parent : TargetInterval nx) (N P F exponent H Q eM eF B E S t Rp : ℕ) (hP : 0 < P) (tau a eta kappa delta : BinaryFraction) (parentInitial : TargetInterval ny → BinaryFraction × ℕ) (hp : ∀ r, (parentInitial r).2 ≤ Rp) (q : TargetInterval ny) (massWords currentWords : List BinaryFraction) (currentKeys : List (Fin M × TargetInterval ny)) (historical : Fin M × ℕ × TargetInterval ny → BinaryFraction) (initial : Fin M × TargetInterval ny → BinaryFraction) (integer : ℕ → TargetInterval ny → ℕ) (hn : PreparedKernelNumericBounds (nx := nx) (M := M) N P F exponent H Q eM eF B E S (t - 1) tau a eta kappa delta integer) (hpw : ∀ r, (parentInitial r).1.width ≤ B) (hpn : ∀ r, 0 ≤ (parentInitial r).1.value) (hmw : ∀ w ∈ massWords, w.width ≤ B) (hcw : ∀ w ∈ currentWords, w.width ≤ B) (hiw : ∀ input, (initial input).width ≤ B) (hhw : ∀ input, (historical input).width ≤ B) (hin : ∀ input, 0 ≤ (initial input).value) (hhn : ∀ input, 0 ≤ (historical input).value) (hbound : ∀ input, (historical input).value ≤ (initial (input.1, input.2.2)).value) : let earlier := (queryEarlierInputsWithWork M parent N P F exponent t hP a parentInitial q).1 let band := (queryBandInputsWithWork M parent N P F exponent hP a parentInitial q).1 PreparedKernelInputBounds (nx := nx) N P F exponent H Q eM eF B E S (t - 1) tau a eta kappa delta (fun r => (parentInitial r).1) (fun i r => (queryChildReadWithWork band massWords i r).1) (fun i r => (queryChildReadWithWork band (band.map initial) i r).1) (fun input => (queryHistoryReadWithWork earlier (earlier.map historical) (t - 1) input).1) (fun input => (queryChildReadWithWork currentKeys currentWords input.1 input.2).1) (fun s input => (queryHistoryReadWithWork earlier (earlier.map historical) s input).1) integer := by let earlier := (queryEarlierInputsWithWork M parent N P F exponent t hP a parentInitial q).1 let band := (queryBandInputsWithWork M parent N P F exponent hP a parentInitial q).1 have hB : 2 ≤ B := by have := hn.largeBits; omega have hew : ∀ w ∈ earlier.map historical, w.width ≤ B := by intro w hw obtain ⟨key, _, rfl⟩ := List.mem_map.mp hw exact hhw key have hiw' : ∀ w ∈ band.map initial, w.width ≤ B := by intro w hw obtain ⟨key, _, rfl⟩ := List.mem_map.mp hw exact hiw key apply hn.with_independent_cached_values · exact hpw · intro i r exact gatheredWordLookupWithWork_width _ band massWords (i, r) B hB hmw · intro i r exact gatheredWordLookupWithWork_width _ band (band.map initial) (i, r) B hB hiw' · intro input exact queryHistoryReadWithWork_width earlier (earlier.map historical) (t - 1) input B hB hew · intro input exact gatheredWordLookupWithWork_width _ currentKeys currentWords input B hB hcw · intro s _ i r exact queryHistoryReadWithWork_width earlier (earlier.map historical) s (i, r) B hB hew · exact hpn · intro s _ i r exact queryGatheredRefinementHistory_range parent N P F exponent t Rp hP a parentInitial hp q historical initial hhn hin hbound s (i, r) end EditApproximation.BinaryFraction end OAI