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Add lean source and binary files (part 43)
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import OAI.Combinatorics.EditApproximation.Binary.BinaryOnlineReads
import OAI.Combinatorics.EditApproximation.Binary.BinaryBandAction
import OAI.Combinatorics.EditApproximation.Binary.BinaryCoordinateAction
import OAI.Combinatorics.EditApproximation.Definitions
namespace OAI
/-! The actual labelled online action, with charged initial and history reads. -/
namespace EditApproximation
namespace BinaryFraction
def preparedBandActionReadWithWork {M : ℕ} {σ : Type*} [DecidableEq σ]
(mass : Vector BinaryFraction M) (read : ℕ → Fin M × σ → BinaryFraction × ℕ)
(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 =>
onlineLinearReadWithWork (fun j => mass.get j) read 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 preparedBandActionReadWithWork_eq_cost {M : ℕ} {σ : Type*} [DecidableEq σ]
(mass : Vector BinaryFraction M) (read : ℕ → Fin M × σ → BinaryFraction × ℕ)
(eta kappa : BinaryFraction) (band : List (Fin M → σ)) (G j t R : ℕ)
(hr : ∀ s ≤ t + 1, ∀ i : Fin (listedBandCoordinates band).length,
(read s ((listedBandCoordinateVector band).get i)).2 ≤ R) :
(preparedBandActionReadWithWork mass read eta kappa band G j t).1 =
(preparedBandActionWithWork mass (fun s i => (read s i).1) eta kappa band G j t).1 ∧
(preparedBandActionReadWithWork mass read eta kappa band G j t).2 ≤
(preparedBandActionWithWork mass (fun s i => (read s i).1) eta kappa band G j t).2 +
(listedBandCoordinates band).length * ((3 * t + 1) * R) := by
have hl := vectorMapWithWork_extra (listedBandCoordinates band).length
(fun i => onlineLinearReadWithWork (fun j => mass.get j) read eta kappa t
((listedBandCoordinateVector band).get i))
(fun i => onlineLinearWithWork (fun j => mass.get j) (fun s k => (read s k).1) eta kappa t
((listedBandCoordinateVector band).get i))
((3 * t + 1) * R)
(fun i => (onlineLinearReadWithWork_eq_cost _ read eta kappa t _ R
(fun s hs => hr s hs i)).1)
(fun i => (onlineLinearReadWithWork_eq_cost _ read eta kappa t _ R
(fun s hs => hr s hs i)).2)
unfold preparedBandActionReadWithWork preparedBandActionWithWork
dsimp only
rw [hl.1]
exact ⟨rfl, by omega⟩
def bandActionReadWithWork {M n : ℕ} (b : ℕ)
(initial : Fin M → TargetInterval n → BinaryFraction × ℕ)
(read : ℕ → Fin M × TargetInterval n → BinaryFraction × ℕ)
(eta kappa : BinaryFraction) (band : List (Fin M → TargetInterval n)) (G j t : ℕ) :
Option (Fin M → TargetInterval n) × ℕ :=
let mass := envelopeVectorReadWithWork b band initial
let selected := preparedBandActionReadWithWork mass.1 read eta kappa band G j t
(selected.1, mass.2 + selected.2 + 1)
theorem bandActionReadWithWork_eq_cost {M n : ℕ} (b : ℕ)
(initial : Fin M → TargetInterval n → BinaryFraction × ℕ)
(read : ℕ → Fin M × TargetInterval n → BinaryFraction × ℕ)
(eta kappa : BinaryFraction) (band : List (Fin M → TargetInterval n)) (G j t R C : ℕ)
(hi : ∀ i q, (initial i q).2 ≤ C)
(hr : ∀ s ≤ t + 1, ∀ i : Fin (listedBandCoordinates band).length,
(read s ((listedBandCoordinateVector band).get i)).2 ≤ R) :
(bandActionReadWithWork b initial read eta kappa band G j t).1 =
(bandActionWithWork b (fun i q => (initial i q).1)
(fun s i => (read s i).1) eta kappa band G j t).1 ∧
(bandActionReadWithWork b initial read eta kappa band G j t).2 ≤
(bandActionWithWork b (fun i q => (initial i q).1)
(fun s i => (read s i).1) eta kappa band G j t).2 +
M * (band.length * (C + 3)) +
(listedBandCoordinates band).length * ((3 * t + 1) * R) := by
have hm := envelopeVectorReadWithWork_eq_cost b band initial C hi
have hs := preparedBandActionReadWithWork_eq_cost
(envelopeVectorWithWork b band (fun i q => (initial i q).1)).1 read
eta kappa band G j t R hr
unfold bandActionReadWithWork bandActionWithWork
dsimp only
rw [hm.1]
exact ⟨hs.1, by omega⟩
def sampledOnlineActionReadWithWork {n M : ℕ} (center : TargetInterval n) (b : ℕ)
(initial : Fin M → TargetInterval n → BinaryFraction × ℕ)
(read : ℕ → Fin M × TargetInterval n → BinaryFraction × ℕ)
(eta kappa : BinaryFraction) (band : List (Fin M → TargetInterval n)) (hne : band ≠ [])
(G K t : ℕ) (integer : Fin (optimizerTriangularMass K)) :
BinaryBellmanAction (TargetInterval n) (Fin M × TargetInterval n) M × ℕ :=
let chosen := triangularChoiceWithWork K integer
let selected := bandActionReadWithWork b initial read eta kappa band G chosen.1.val t
let states := selected.1.getD (band.head hne)
(⟨center, zero, fun i => (i, states i)⟩, chosen.2 + selected.2 + M + 2)
theorem sampledOnlineActionReadWithWork_eq_cost {n M : ℕ} (center : TargetInterval n) (b : ℕ)
(initial : Fin M → TargetInterval n → BinaryFraction × ℕ)
(read : ℕ → Fin M × TargetInterval n → BinaryFraction × ℕ)
(eta kappa : BinaryFraction) (band : List (Fin M → TargetInterval n)) (hne : band ≠ [])
(G K t R C : ℕ) (integer : Fin (optimizerTriangularMass K))
(hi : ∀ i q, (initial i q).2 ≤ C)
(hr : ∀ s ≤ t + 1, ∀ i : Fin (listedBandCoordinates band).length,
(read s ((listedBandCoordinateVector band).get i)).2 ≤ R) :
(sampledOnlineActionReadWithWork center b initial read eta kappa band hne G K t integer).1 =
(sampledOnlineActionWithWork center b (fun i q => (initial i q).1)
(fun s i => (read s i).1) eta kappa band hne G K t integer).1 ∧
(sampledOnlineActionReadWithWork center b initial read eta kappa band hne G K t integer).2 ≤
(sampledOnlineActionWithWork center b (fun i q => (initial i q).1)
(fun s i => (read s i).1) eta kappa band hne G K t integer).2 +
M * (band.length * (C + 3)) +
(listedBandCoordinates band).length * ((3 * t + 1) * R) := by
have hs := bandActionReadWithWork_eq_cost b initial read eta kappa band G
(triangularChoiceWithWork K integer).1.val t R C hi hr
unfold sampledOnlineActionReadWithWork sampledOnlineActionWithWork
dsimp only
rw [hs.1]
exact ⟨rfl, by omega⟩
theorem countedPreparedActionReadWithWork_eq_cost {M n : ℕ} (mass : Vector BinaryFraction M)
(read : ℕ → Fin M × TargetInterval n → BinaryFraction × ℕ)
(eta kappa : BinaryFraction) (band : List (Fin M → TargetInterval n)) (G j t R : ℕ)
(hr : ∀ s ≤ t + 1, ∀ i : Fin (listedBandCoordinates band).length,
(read s ((listedBandCoordinateVector band).get i)).2 ≤ R) :
(countedPreparedActionReadWithWork mass read eta kappa band G j t).1 =
(countedPreparedActionWithWork mass (fun s i => (read s i).1) eta kappa band G j t).1 ∧
(countedPreparedActionReadWithWork mass read eta kappa band G j t).2 ≤
(countedPreparedActionWithWork mass (fun s i => (read s i).1) eta kappa band G j t).2 +
(listedBandCoordinates band).length * ((3 * t + 1) * R) := by
have hl := vectorMapWithWork_extra (listedBandCoordinates band).length
(fun i => onlineLinearReadWithWork (fun j => mass.get j) read eta kappa t
((listedBandCoordinateVector band).get i))
(fun i => onlineLinearWithWork (fun j => mass.get j) (fun s k => (read s k).1) eta kappa t
((listedBandCoordinateVector band).get i))
((3 * t + 1) * R)
(fun i => (onlineLinearReadWithWork_eq_cost _ read eta kappa t _ R
(fun s hs => hr s hs i)).1)
(fun i => (onlineLinearReadWithWork_eq_cost _ read eta kappa t _ R
(fun s hs => hr s hs i)).2)
unfold countedPreparedActionReadWithWork countedPreparedActionWithWork
simp only [coordinateVectorWithWork_value]
rw [hl.1]
exact ⟨rfl, by omega⟩
theorem countedBandActionReadWithWork_eq_cost {M n : ℕ} (b : ℕ)
(initial : Fin M → TargetInterval n → BinaryFraction × ℕ)
(read : ℕ → Fin M × TargetInterval n → BinaryFraction × ℕ)
(eta kappa : BinaryFraction) (band : List (Fin M → TargetInterval n)) (G j t R C : ℕ)
(hi : ∀ i q, (initial i q).2 ≤ C)
(hr : ∀ s ≤ t + 1, ∀ i : Fin (listedBandCoordinates band).length,
(read s ((listedBandCoordinateVector band).get i)).2 ≤ R) :
(countedBandActionReadWithWork b initial read eta kappa band G j t).1 =
(countedBandActionWithWork b (fun i q => (initial i q).1)
(fun s i => (read s i).1) eta kappa band G j t).1 ∧
(countedBandActionReadWithWork b initial read eta kappa band G j t).2 ≤
(countedBandActionWithWork b (fun i q => (initial i q).1)
(fun s i => (read s i).1) eta kappa band G j t).2 +
M * (band.length * (C + 3)) +
(listedBandCoordinates band).length * ((3 * t + 1) * R) := by
have hm := envelopeVectorReadWithWork_eq_cost b band initial C hi
have hs := countedPreparedActionReadWithWork_eq_cost
(envelopeVectorWithWork b band (fun i q => (initial i q).1)).1 read
eta kappa band G j t R hr
unfold countedBandActionReadWithWork countedBandActionWithWork
dsimp only
rw [hm.1]
exact ⟨hs.1, by omega⟩
theorem countedSampledOnlineReadWithWork_eq_cost {n M : ℕ} (center : TargetInterval n) (b : ℕ)
(initial : Fin M → TargetInterval n → BinaryFraction × ℕ)
(read : ℕ → Fin M × TargetInterval n → BinaryFraction × ℕ)
(eta kappa : BinaryFraction) (band : List (Fin M → TargetInterval n)) (hne : band ≠ [])
(G K t R C : ℕ) (integer : Fin (optimizerTriangularMass K))
(hi : ∀ i q, (initial i q).2 ≤ C)
(hr : ∀ s ≤ t + 1, ∀ i : Fin (listedBandCoordinates band).length,
(read s ((listedBandCoordinateVector band).get i)).2 ≤ R) :
(countedSampledOnlineReadWithWork center b initial read eta kappa band hne G K t integer).1 =
(countedSampledOnlineWithWork center b (fun i q => (initial i q).1)
(fun s i => (read s i).1) eta kappa band hne G K t integer).1 ∧
(countedSampledOnlineReadWithWork center b initial read eta kappa band hne G K t integer).2 ≤
(countedSampledOnlineWithWork center b (fun i q => (initial i q).1)
(fun s i => (read s i).1) eta kappa band hne G K t integer).2 +
M * (band.length * (C + 3)) +
(listedBandCoordinates band).length * ((3 * t + 1) * R) := by
have hs := countedBandActionReadWithWork_eq_cost b initial read eta kappa band G
(triangularChoiceWithWork K integer).1.val t R C hi hr
unfold countedSampledOnlineReadWithWork countedSampledOnlineWithWork
dsimp only
rw [hs.1]
exact ⟨rfl, by omega⟩
end BinaryFraction
end EditApproximation
end OAI