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Add lean source and binary files (part 84)
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import OAI.LinearAlgebra.MatrixMultiplication.ComplexBounds.CW75ReorderedWords
import OAI.LinearAlgebra.MatrixMultiplication.Entropy.ComplexConditionalHierarchyStage
import OAI.LinearAlgebra.MatrixMultiplication.Separation.ComplexPrefixSeparationOrientations
import OAI.LinearAlgebra.MatrixMultiplication.Tensor.ComplexGeometricStageCoordinates
namespace OAI
/-! Explicit complex square and rectangular matrix multiplication bounds. -/
noncomputable section
namespace MatrixMultiplication.CW75ReorderedGeometricValues
open MatrixMultiplication.Foundation
open ComplexWitness CW75LabelHierarchy CW75ReorderedWords ConditionalPrefixWords
open ConditionalHierarchyStage PrefixSeparationPolynomialStage PrefixSeparationOrientations
open StageHierarchyResources
open scoped Classical
variable {Position : Type*} [Fintype Position] {counts : Scalar → ℕ} {n t : ℕ}
abbrev size (counts : Scalar → ℕ) (n t : ℕ) := stageRefinementCount counts curveLabels n t
theorem actualPool_decode (old : ExactPrefix counts curveLabels n t Position)
(code : Fin (size counts n t)) :
decodePool (actualPool counts curveLabels n t id) (size counts n t)
(actualPool_card counts curveLabels n t id) old code =
((conditionalPoolEquivFin old).symm code).val := rfl
theorem decode_eq_iff_eligible (old : ExactPrefix counts curveLabels n t Position)
(code : Fin (size counts n t)) (u v w : LongWord Position)
(word : Position → Scalar) (hword : Represents id old u v w word) :
decodePool (actualPool counts curveLabels n t id) (size counts n t)
(actualPool_card counts curveLabels n t id) old code = (fun i => curveLabels n (word i)) ↔
eligible id (appendCode old code) u v w := by
rw [actualPool_decode]
exact (eligible_appendCode_iff_of_represents old code u v w word hword).symm
private theorem first_read (old : ExactPrefix counts curveLabels n t Position)
(u v w : LongWord Position) (word : Position → Scalar) (hn : n < 5)
(hword : Represents id old u v w word) :
firstRead id old (coordinateOf (curveFirstSide n) u v w) = fun i => curveLabels n (word i) := by
rw [hword.1, hword.2.1, hword.2.2.1, coordinateOf_original]
exact firstRead_on_original_word id old word hn hword.2.2.2
private theorem second_read (old : ExactPrefix counts curveLabels n t Position)
(u v w : LongWord Position) (word : Position → Scalar) (hn : n < 5)
(hword : Represents id old u v w word) :
secondRead id old (coordinateOf (curveSecondSide n) u v w) = fun i => curveLabels n (word i) := by
rw [hword.1, hword.2.1, hword.2.2.1, coordinateOf_original]
exact secondRead_on_original_word id old word hn hword.2.2.2
theorem raw_XY_normal
(old : ExactPrefix counts curveLabels n t Position) (hn : n < 5)
(hfirst : curveFirstSide n = .x) (hsecond : curveSecondSide n = .y)
(x : LongWord Position × InformedOutput (size counts n t))
(y : LongWord Position × InformedOutput (size counts n t))
(z : LongWord Position × MissingOutput (size counts n t))
(word : Position → Scalar) (hword : Represents id old x.1 y.1 z.1 word) :
rawPoolLeading (actualPool counts curveLabels n t id) (size counts n t)
(stageRefinementCount_pos counts curveLabels n t) (actualPool_card counts curveLabels n t id)
(firstRead id) (secondRead id) old x y z =
if x.2.1 = y.2.1 ∧ x.2.1 = z.2.1 ∧
eligible id (appendCode old x.2.1) x.1 y.1 z.1 then
(GeometricStageCoordinates.xy (size counts n t)).tensor x.2.2 y.2.2 z.2.2
else 0 := by
have hx := first_read old x.1 y.1 z.1 word hn hword
have hy := second_read old x.1 y.1 z.1 word hn hword
simp only [hfirst, coordinateOf] at hx
simp only [hsecond, coordinateOf] at hy
rw [rawPoolLeading_eq_decodedLeading (actualPool counts curveLabels n t id) (size counts n t) (stageRefinementCount_pos counts curveLabels n t) (actualPool_card counts curveLabels n t id) (firstRead id) (secondRead id) (fun _ _ _ _ => fun i => curveLabels n (word i)) old x y z hx hy]
unfold decodedLeading
simp only [decode_eq_iff_eligible old x.2.1 x.1 y.1 z.1 word hword, GeometricStageCoordinates.xy_tensor_apply]
simp only [ite_and]
theorem raw_XZ_normal
(old : ExactPrefix counts curveLabels n t Position) (hn : n < 5)
(hfirst : curveFirstSide n = .x) (hsecond : curveSecondSide n = .z)
(x : LongWord Position × InformedOutput (size counts n t))
(y : LongWord Position × MissingOutput (size counts n t))
(z : LongWord Position × InformedOutput (size counts n t))
(word : Position → Scalar) (hword : Represents id old x.1 y.1 z.1 word) :
rawPoolLeadingXZ (actualPool counts curveLabels n t id) (size counts n t)
(stageRefinementCount_pos counts curveLabels n t) (actualPool_card counts curveLabels n t id)
(firstRead id) (secondRead id) old x y z =
if x.2.1 = y.2.1 ∧ x.2.1 = z.2.1 ∧
eligible id (appendCode old x.2.1) x.1 y.1 z.1 then
(GeometricStageCoordinates.xz (size counts n t)).tensor x.2.2 y.2.2 z.2.2
else 0 := by
have hx := first_read old x.1 y.1 z.1 word hn hword
have hz := second_read old x.1 y.1 z.1 word hn hword
simp only [hfirst, coordinateOf] at hx
simp only [hsecond, coordinateOf] at hz
unfold rawPoolLeadingXZ
rw [rawPoolLeading_eq_decodedLeading (actualPool counts curveLabels n t id) (size counts n t) (stageRefinementCount_pos counts curveLabels n t) (actualPool_card counts curveLabels n t id) (firstRead id) (secondRead id) (fun _ _ _ _ => fun i => curveLabels n (word i)) old x z y hx hz]
unfold decodedLeading
simp only [decode_eq_iff_eligible old x.2.1 x.1 y.1 z.1 word hword, GeometricStageCoordinates.xz_tensor_apply]
have hswap :
(x.2.1 = z.2.1 ∧ x.2.1 = y.2.1 ∧
eligible id (appendCode old x.2.1) x.1 y.1 z.1 ∧ x.2.2 = z.2.2) ↔
(x.2.1 = y.2.1 ∧ x.2.1 = z.2.1 ∧
eligible id (appendCode old x.2.1) x.1 y.1 z.1 ∧ x.2.2 = z.2.2) :=
and_left_comm
simp only [hswap, ite_and]
theorem raw_YZ_normal
(old : ExactPrefix counts curveLabels n t Position) (hn : n < 5)
(hfirst : curveFirstSide n = .y) (hsecond : curveSecondSide n = .z)
(x : LongWord Position × MissingOutput (size counts n t))
(y : LongWord Position × InformedOutput (size counts n t))
(z : LongWord Position × InformedOutput (size counts n t))
(word : Position → Scalar) (hword : Represents id old x.1 y.1 z.1 word) :
rawPoolLeadingYZ (actualPool counts curveLabels n t id) (size counts n t)
(stageRefinementCount_pos counts curveLabels n t) (actualPool_card counts curveLabels n t id)
(firstRead id) (secondRead id) old x y z =
if x.2.1 = y.2.1 ∧ x.2.1 = z.2.1 ∧
eligible id (appendCode old x.2.1) x.1 y.1 z.1 then
(GeometricStageCoordinates.yz (size counts n t)).tensor x.2.2 y.2.2 z.2.2
else 0 := by
have hy := first_read old x.1 y.1 z.1 word hn hword
have hz := second_read old x.1 y.1 z.1 word hn hword
simp only [hfirst, coordinateOf] at hy
simp only [hsecond, coordinateOf] at hz
unfold rawPoolLeadingYZ
rw [rawPoolLeading_eq_decodedLeading (actualPool counts curveLabels n t id) (size counts n t) (stageRefinementCount_pos counts curveLabels n t) (actualPool_card counts curveLabels n t id) (firstRead id) (secondRead id) (fun _ _ _ _ => fun i => curveLabels n (word i)) old y z x hy hz]
have hguard :
(y.2.1 = z.2.1 ∧ y.2.1 = x.2.1 ∧
decodePool (actualPool counts curveLabels n t id) (size counts n t)
(actualPool_card counts curveLabels n t id) old y.2.1 = (fun i => curveLabels n (word i)) ∧
y.2.2 = z.2.2) ↔
(x.2.1 = y.2.1 ∧ x.2.1 = z.2.1 ∧
eligible id (appendCode old x.2.1) x.1 y.1 z.1 ∧ y.2.2 = z.2.2) := by
constructor
· rintro ⟨hyz, hyx, hdecode, hpair⟩
refine ⟨hyx.symm, hyx.symm.trans hyz, ?_, hpair⟩
apply (decode_eq_iff_eligible old x.2.1 x.1 y.1 z.1 word hword).mp
simpa only [hyx] using hdecode
· rintro ⟨hxy, hxz, he, hpair⟩
refine ⟨hxy.symm.trans hxz, hxy.symm, ?_, hpair⟩
have hdecode := (decode_eq_iff_eligible old x.2.1 x.1 y.1 z.1 word hword).mpr he
simpa only [hxy] using hdecode
unfold decodedLeading
simp only [hguard, GeometricStageCoordinates.yz_tensor_apply]
simp only [ite_and]
end MatrixMultiplication.CW75ReorderedGeometricValues
end
end OAI