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import OAI.LinearAlgebra.MatrixMultiplication.FieldGroups.AdmissibilityCore
import OAI.LinearAlgebra.MatrixMultiplication.FieldGroups.Degrees
import OAI.LinearAlgebra.MatrixMultiplication.FieldGroups.NativeLaws
import OAI.LinearAlgebra.MatrixMultiplication.FieldHistory.MaskLaws
import OAI.LinearAlgebra.MatrixMultiplication.JointExtraction.PairClassWindows
import OAI.LinearAlgebra.MatrixMultiplication.JointExtraction.PairMixtureControls
import OAI.LinearAlgebra.MatrixMultiplication.JointExtraction.CompatibilityRateLimit
namespace OAI
/-! Group assignments, orbit counts and extraction capacities. -/
noncomputable section
namespace MatrixMultiplication.AllFieldGroupPairWindows
open MatrixMultiplication.Foundation AllFieldHistory AllFieldHistorySupport
open AllFieldHistoryChildLaws AllFieldHistoryMasks AllFieldHistoryMaskLaws
open AllFieldHistoryGroupMasks AllFieldHistoryGroupedRecovery
open AllFieldGroupOrbitData AllFieldGroupDegrees AllFieldGroupNativeLaws
open JointCompatibilityScaling JointCompatibilityRateLimit
open scoped BigOperators
attribute [local instance] Classical.propDecidable
variable {K tick : ℕ}
def base (allocation : Allocation) (sigma : Placement) (side : Fin 3) :=
JointPopulationCompatibility.classCounts
(Counts (K := K) (tick := tick) allocation 1 sigma) (sigma side)
def q (allocation : Allocation) (sigma : Placement) (side : Fin 3)
(c : Class (K := K) (tick := tick) sigma) : Symbol (K := K) (tick := tick) sigma c × Symbol (K := K) (tick := tick) sigma c → ℝ :=
JointPairMixtureControls.pairMixture (base (K := K) (tick := tick) allocation sigma side)
(fun c u => supportedHalfLaw allocation false c.1.val u (sigma side))
(fun c u => supportedHalfLaw allocation true c.1.val u (sigma side)) c
abbrev Positions (allocation : Allocation) (m : ℕ) (sigma : Placement)
(w : Raw (K := K) (tick := tick) allocation m sigma) :=
JointPopulationCompatibility.ClassPos (Counts (K := K) (tick := tick) allocation m sigma)
(ownWord (K := K) (tick := tick) allocation m sigma w)
def pairCounts (allocation : Allocation) (m : ℕ) (sigma : Placement)
(w : Raw (K := K) (tick := tick) allocation m sigma) :=
JointPopulationCompatibility.statisticCounts (Counts (K := K) (tick := tick) allocation m sigma)
(Letter (K := K) (tick := tick) sigma) (Letter (K := K) (tick := tick) sigma) (Symbol (K := K) (tick := tick) sigma) (Symbol (K := K) (tick := tick) sigma)
(projectedStatistic (K := K) (tick := tick) sigma) (projectedStatistic (K := K) (tick := tick) sigma)
(ownWord (K := K) (tick := tick) allocation m sigma w) w
def parentBase {sigma : Placement} (allocation : Allocation) (h : ActiveOrder K tick sigma) : ℕ :=
population allocation 1 (h.val.val.1.source, h.val.val.2)
def parentPair (allocation : Allocation) (sigma : Placement) (side : Fin 3)
(h : ActiveOrder K tick sigma) (a : Statistic h.val × Statistic h.val) : ℝ :=
(∑ u, (activeCounts allocation 1 h.val u : ℝ) *
supportedHalfLaw allocation false h.val u (sigma side) a.1 *
supportedHalfLaw allocation true h.val u (sigma side) a.2) / parentBase (K := K) (tick := tick) allocation h
def classMass (allocation : Allocation) (sigma : Placement) (side : Fin 3)
(c : Class (K := K) (tick := tick) sigma) : ℝ :=
(baseSize (base (K := K) (tick := tick) allocation sigma side) c : ℝ) / parentBase (K := K) (tick := tick) allocation c.1
def windowFactor (allocation : Allocation) (sigma : Placement) : ℝ :=
1 + ∑ h : ActiveOrder K tick sigma, (parentBase (K := K) (tick := tick) allocation h : ℝ)
theorem windowFactor_pos (allocation : Allocation) (sigma : Placement) :
0 < windowFactor (K := K) (tick := tick) allocation sigma := by
unfold windowFactor
positivity
theorem parentBase_pos {sigma : Placement} (allocation : Allocation) (h : ActiveOrder K tick sigma) :
0 < parentBase (K := K) (tick := tick) allocation h :=
AllFieldHistorySupport.work_source_population_pos allocation (by decide : 0 < (1 : ℕ)) h.val.val
theorem parent_positions_card (allocation : Allocation) (m : ℕ) (sigma : Placement)
(h : ActiveOrder K tick sigma) :
Fintype.card (JointPopulation.Positions (Counts (K := K) (tick := tick) allocation m sigma) h) =
m * parentBase (K := K) (tick := tick) allocation h := by
change Fintype.card (Fin (∑ u, jointCounts allocation m h.val.val u)) = _
rw [Fintype.card_fin, jointCounts_sum]
exact population_dilation allocation m _
theorem positions_card (allocation : Allocation) (m : ℕ) (ε : ℝ) (sigma : Placement)
(side : Fin 3) (e : Targets (K := K) (tick := tick) allocation m sigma)
(w : Raw (K := K) (tick := tick) allocation m sigma) (hw : Admissible allocation m ε sigma side e w)
(c : Class (K := K) (tick := tick) sigma) :
Fintype.card (Positions (K := K) (tick := tick) allocation m sigma w c) =
m * baseSize (base (K := K) (tick := tick) allocation sigma side) c := by
have he : JointPopulationCompatibility.FixedSideTargets (Counts (K := K) (tick := tick) allocation m sigma)
(sigma side) (ownWord (K := K) (tick := tick) allocation m sigma w) :=
⟨e, fun h j => (hw.1.1 h j).symm⟩
rw [JointPopulationCompatibility.classCounts_size
(Counts (K := K) (tick := tick) allocation m sigma) (sigma side) (ownWord (K := K) (tick := tick) allocation m sigma w) he c]
simp only [JointPopulationCompatibility.classCounts, Counts, groupCounts,
activeCounts_dilation allocation m, base, baseSize, Finset.mul_sum, mul_ite, mul_zero]
theorem parentPair_eq_parentCenter (allocation : Allocation) (sigma : Placement)
(side : Fin 3) (h : ActiveOrder K tick sigma)
(a : Statistic h.val × Statistic h.val) :
parentPair (K := K) (tick := tick) allocation sigma side h a = parentCenter allocation (sigma side) h.val a.1 a.2 := by
unfold parentPair parentCenter parentBase
rw [Finset.sum_div]
apply Finset.sum_congr rfl
intro u _
by_cases hu : 0 < activeCounts allocation 1 h.val u
· simp only [supportedHalfLaw, ite_eq_left hu, halfLawAt, Bool.false_eq_true,
ite_false, ite_true]
ring
· have hz := Nat.eq_zero_of_not_pos hu
simp only [hz, Nat.cast_zero, zero_mul, zero_div]
theorem parentPair_eq_native (allocation : Allocation) (sigma : Placement)
(side : Fin 3) (h : ActiveOrder K tick sigma)
(a : Statistic h.val × Statistic h.val) :
parentPair (K := K) (tick := tick) allocation sigma side h a = orderPairMixture h side a := by
rw [parentPair_eq_parentCenter]
unfold parentCenter orderPairMixture
apply Finset.sum_congr rfl
intro u _
rw [show (activeCounts allocation 1 h.val u : ℝ) /
population allocation 1 (h.val.val.1.source, h.val.val.2) =
(AllFieldActiveLaws.orderLaw h).mass u from
AllFieldActiveLaws.jointCounts_ratio allocation (by decide : 0 < (1 : ℕ)) h.val.val u]
ring
def parentStatistic (allocation : Allocation) (m : ℕ) (sigma : Placement)
(w : Raw (K := K) (tick := tick) allocation m sigma) (h : ActiveOrder K tick sigma)
(j : JointPopulation.Positions (Counts (K := K) (tick := tick) allocation m sigma) h) :
Statistic h.val × Statistic h.val :=
(statistic h.val (w h j).1, statistic h.val (w h j).2)
theorem parent_window (allocation : Allocation) (m : ℕ) (ε : ℝ) (sigma : Placement)
(side : Fin 3) (w : Raw (K := K) (tick := tick) allocation m sigma)
(hw : AllFieldHistoryGroupMasks.rawPass allocation m ε (sigma side) sigma w)
(h : ActiveOrder K tick sigma) (a : Statistic h.val × Statistic h.val) :
|(wordPopulation (parentStatistic (K := K) (tick := tick) allocation m sigma w h) a : ℝ) /
Fintype.card (JointPopulation.Positions (Counts (K := K) (tick := tick) allocation m sigma) h) -
parentPair (K := K) (tick := tick) allocation sigma side h a| ≤ pairWidth ε h.val := by
let defaults : SymbolChoice K tick := fun h => statistic h (fun _ => 0)
let l : SymbolChoice K tick := Function.update defaults h.val a.1
let r : SymbolChoice K tick := Function.update defaults h.val a.2
have hp := hw (h.val, l, r) h.property
rw [center_eq_parentCenter] at hp
simp only [l, r, Function.update_self] at hp
rw [parentPair_eq_parentCenter]
have hpop : Fintype.card (JointPopulation.Positions (Counts (K := K) (tick := tick) allocation m sigma) h) =
population allocation m (h.val.val.1.source, h.val.val.2) := by
change Fintype.card (Fin (∑ u, jointCounts allocation m h.val.val u)) = _
rw [Fintype.card_fin]
exact jointCounts_sum allocation m h.val.val
rw [hpop]
have hcount : (wordPopulation (parentStatistic (K := K) (tick := tick) allocation m sigma w h) a : ℝ) =
∑ j : JointPopulation.Positions (activeCounts allocation m) h.val,
if statistic h.val (w h j).1 = a.1 ∧ statistic h.val (w h j).2 = a.2
then (1 : ℝ) else 0 := by
rcases a with ⟨a₁, a₂⟩
simp only [wordPopulation, Fintype.card_subtype, Finset.card_eq_sum_ones,
Finset.sum_filter, Nat.cast_sum, Nat.cast_ite, Nat.cast_one, Nat.cast_zero,
parentStatistic, Prod.mk.injEq]
apply Finset.sum_congr rfl
intro j _
split_ifs <;> rfl
rw [hcount]
exact hp
def weightCode {K : ℕ} (w : Work K) : w.Statistic → Fin 17 :=
match w with
| .stageA _ => AllFieldPairMarginals.halfWeightCode
| .stageB _ => AllFieldPairMarginals.statisticWeightCode
| .stageC _ => fun _ => 0
@[simp] theorem weightCode_val {K : ℕ} (w : Work K) (a : w.Statistic) :
(weightCode w a).val = w.statisticWeight a := by
cases w <;> rfl
theorem weightCode_statistic {K : ℕ} (w : Work K) (hs : w.stage ≠ 2)
(x : CWWindowedLeaves.Raw w.halfLength) :
(weightCode w (w.statistic x)).val = CWStrands.weight x :=
(weightCode_val w _).trans (w.statistic_weight hs x).symm
theorem left_supported_zero (allocation : Allocation) (sigma : Placement) (side : Fin 3)
(h : ActiveOrder K tick sigma) (hs : h.val.val.1.stage ≠ 2)
(u : JointPopulation.Shape) (a : Statistic h.val)
(ha : weightCode h.val.val.1 a ≠ JointPopulation.shapeSide (sigma side) u) :
supportedHalfLaw allocation false h.val u (sigma side) a = 0 := by
by_cases hu : 0 < activeCounts allocation 1 h.val u
· rw [supportedHalfLaw_eq_of_counts_pos allocation 1 false h.val u hu, halfLawAt_eq]
apply Rat.cast_eq_zero.mpr
apply h.val.val.1.childLaw_outside_support hs _
(halfShape_mem_of_counts_pos allocation 1 false h.val u hu) _ a
rw [halfShape_childWeight]
simpa only [childWeight, Bool.false_eq_true, ite_false, ← weightCode_val,
ne_eq, Fin.ext_iff] using ha
· simp only [supportedHalfLaw, ite_eq_right hu]
theorem filtered_pair_sum (allocation : Allocation) (sigma : Placement) (side : Fin 3)
(c : Class (K := K) (tick := tick) sigma) (hs : c.1.val.val.1.stage ≠ 2)
(a : Symbol (K := K) (tick := tick) sigma c × Symbol (K := K) (tick := tick) sigma c) :
(∑ u, (base (K := K) (tick := tick) allocation sigma side c u : ℝ) *
supportedHalfLaw allocation false c.1.val u (sigma side) a.1 *
supportedHalfLaw allocation true c.1.val u (sigma side) a.2) =
if weightCode c.1.val.val.1 a.1 = c.2 then
∑ u, (activeCounts allocation 1 c.1.val u : ℝ) *
supportedHalfLaw allocation false c.1.val u (sigma side) a.1 *
supportedHalfLaw allocation true c.1.val u (sigma side) a.2
else 0 := by
have hterm (u : JointPopulation.Shape) :
(base (K := K) (tick := tick) allocation sigma side c u : ℝ) *
supportedHalfLaw allocation false c.1.val u (sigma side) a.1 *
supportedHalfLaw allocation true c.1.val u (sigma side) a.2 =
if weightCode c.1.val.val.1 a.1 = c.2 then
(activeCounts allocation 1 c.1.val u : ℝ) *
supportedHalfLaw allocation false c.1.val u (sigma side) a.1 *
supportedHalfLaw allocation true c.1.val u (sigma side) a.2
else 0 := by
by_cases hu : JointPopulation.shapeSide (sigma side) u = c.2
· simp only [base, JointPopulationCompatibility.classCounts, Counts, groupCounts,
hu, ite_true]
by_cases ha : weightCode c.1.val.val.1 a.1 = c.2
· rw [ite_eq_left ha]
· have hz := left_supported_zero (K := K) (tick := tick) allocation sigma side c.1 hs u a.1
(fun he => ha (he.trans hu))
simp only [ha, ite_false, hz, mul_zero, zero_mul]
· simp only [base, JointPopulationCompatibility.classCounts, Counts, groupCounts,
hu, ite_false, Nat.cast_zero, zero_mul]
by_cases ha : weightCode c.1.val.val.1 a.1 = c.2
· have hz := left_supported_zero (K := K) (tick := tick) allocation sigma side c.1 hs u a.1
(fun he => hu (he.symm.trans ha))
simp only [ha, ite_true, hz, mul_zero, zero_mul]
· rw [ite_eq_right ha]
simp_rw [hterm]
split_ifs <;> simp
theorem q_eq_conditionalCenter (allocation : Allocation) (sigma : Placement) (side : Fin 3)
(c : Class (K := K) (tick := tick) sigma) (hs : c.1.val.val.1.stage ≠ 2) :
q (K := K) (tick := tick) allocation sigma side c = JointPairClassWindows.conditionalCenter
(fun a : Symbol (K := K) (tick := tick) sigma c × Symbol (K := K) (tick := tick) sigma c => weightCode c.1.val.val.1 a.1)
c.2 (parentPair (K := K) (tick := tick) allocation sigma side c.1) (classMass (K := K) (tick := tick) allocation sigma side c) := by
funext a
rw [q, JointPairMixtureControls.pairMixture, filtered_pair_sum (K := K) (tick := tick) allocation sigma side c hs]
unfold JointPairClassWindows.conditionalCenter parentPair classMass
by_cases ha : weightCode c.1.val.val.1 a.1 = c.2
· simp only [ha, ite_true]
have hp : (parentBase (K := K) (tick := tick) allocation c.1 : ℝ) ≠ 0 :=
Nat.cast_ne_zero.mpr (Nat.ne_of_gt (parentBase_pos (K := K) (tick := tick) allocation c.1))
rw [div_div_div_cancel_right₀ hp]
· simp only [ha, ite_false, zero_div]
theorem classMass_pos (allocation : Allocation) (sigma : Placement) (side : Fin 3)
(c : Class (K := K) (tick := tick) sigma)
(hc : 0 < baseSize (base (K := K) (tick := tick) allocation sigma side) c) :
0 < classMass (K := K) (tick := tick) allocation sigma side c :=
div_pos (Nat.cast_pos.mpr hc) (Nat.cast_pos.mpr (parentBase_pos (K := K) (tick := tick) allocation c.1))
theorem fiber_mass (allocation : Allocation) (m : ℕ) (ε : ℝ) (sigma : Placement)
(side : Fin 3) (e : Targets (K := K) (tick := tick) allocation m sigma)
(w : Raw (K := K) (tick := tick) allocation m sigma) (hw : Admissible allocation m ε sigma side e w)
(c : Class (K := K) (tick := tick) sigma) :
(Fintype.card (Positions (K := K) (tick := tick) allocation m sigma w c) : ℝ) =
(Fintype.card (JointPopulation.Positions (Counts (K := K) (tick := tick) allocation m sigma) c.1) : ℝ) *
classMass (K := K) (tick := tick) allocation sigma side c := by
rw [positions_card (K := K) (tick := tick) allocation m ε sigma side e w hw, parent_positions_card]
simp only [Nat.cast_mul, classMass]
have hp : (parentBase (K := K) (tick := tick) allocation c.1 : ℝ) ≠ 0 :=
Nat.cast_ne_zero.mpr (Nat.ne_of_gt (parentBase_pos (K := K) (tick := tick) allocation c.1))
rw [mul_assoc, mul_div_cancel₀ _ hp]
theorem width_le (allocation : Allocation) {ε : ℝ} (hε : 0 ≤ ε)
(sigma : Placement) (side : Fin 3) (c : Class (K := K) (tick := tick) sigma)
(hc : 0 < baseSize (base (K := K) (tick := tick) allocation sigma side) c) :
pairWidth ε c.1.val / classMass (K := K) (tick := tick) allocation sigma side c ≤
windowFactor (K := K) (tick := tick) allocation sigma * ε := by
have hpw : 0 ≤ pairWidth ε c.1.val := by unfold pairWidth; positivity
have hw : pairWidth ε c.1.val ≤ ε :=
div_le_self hε (one_le_pow₀ (by norm_num))
have hb : (1 : ℝ) ≤ baseSize (base (K := K) (tick := tick) allocation sigma side) c := by exact_mod_cast hc
have hn : (parentBase (K := K) (tick := tick) allocation c.1 : ℝ) ≤ windowFactor (K := K) (tick := tick) allocation sigma := by
unfold windowFactor
exact (Finset.single_le_sum (fun _ _ => Nat.cast_nonneg _) (Finset.mem_univ c.1)).trans
(le_add_of_nonneg_left zero_le_one)
unfold classMass
rw [div_div_eq_mul_div]
calc
pairWidth ε c.1.val * (parentBase (K := K) (tick := tick) allocation c.1 : ℝ) /
(baseSize (base (K := K) (tick := tick) allocation sigma side) c : ℝ) ≤
pairWidth ε c.1.val * (parentBase (K := K) (tick := tick) allocation c.1 : ℝ) :=
div_le_self (mul_nonneg hpw (Nat.cast_nonneg _)) hb
_ ≤ ε * windowFactor (K := K) (tick := tick) allocation sigma := mul_le_mul hw hn (Nat.cast_nonneg _) hε
_ = _ := mul_comm _ _
theorem sharing_window (allocation : Allocation) (m : ℕ) {ε : ℝ} (hε : 0 ≤ ε)
(sigma : Placement) (side : Fin 3)
(e : Targets (K := K) (tick := tick) allocation m sigma)
(w : Raw (K := K) (tick := tick) allocation m sigma) (hw : Admissible allocation m ε sigma side e w)
(hp : AllFieldHistoryGroupMasks.rawPass allocation m ε (sigma side) sigma w)
(c : Class (K := K) (tick := tick) sigma) (hs : c.1.val.val.1.stage ≠ 2)
(hc : 0 < baseSize (base (K := K) (tick := tick) allocation sigma side) c)
(a : Symbol (K := K) (tick := tick) sigma c × Symbol (K := K) (tick := tick) sigma c) :
|(pairCounts (K := K) (tick := tick) allocation m sigma w c a : ℝ) /
Fintype.card (Positions (K := K) (tick := tick) allocation m sigma w c) - q (K := K) (tick := tick) allocation sigma side c a| ≤
windowFactor (K := K) (tick := tick) allocation sigma * ε := by
let z := parentStatistic (K := K) (tick := tick) allocation m sigma w c.1
let k : JointPopulation.Positions (Counts (K := K) (tick := tick) allocation m sigma) c.1 → Fin 17 :=
fun j => ownWord (K := K) (tick := tick) allocation m sigma w ⟨c.1, j⟩
let f : Symbol (K := K) (tick := tick) sigma c × Symbol (K := K) (tick := tick) sigma c → Fin 17 :=
fun a => weightCode c.1.val.val.1 a.1
have hf (j) : f (z j) = k j := by
apply Fin.ext
exact weightCode_statistic c.1.val.val.1 hs (w c.1 j).1
have hη : 0 ≤ pairWidth ε c.1.val := by unfold pairWidth; positivity
have hh := JointPairClassWindows.fiber_window z k f hf c.2
(parentPair (K := K) (tick := tick) allocation sigma side c.1) (classMass (K := K) (tick := tick) allocation sigma side c)
(pairWidth ε c.1.val) (classMass_pos (K := K) (tick := tick) allocation sigma side c hc) hη
(fiber_mass (K := K) (tick := tick) allocation m ε sigma side e w hw c)
(parent_window (K := K) (tick := tick) allocation m ε sigma side w hp c.1) a
rw [← q_eq_conditionalCenter (K := K) (tick := tick) allocation sigma side c hs] at hh
exact hh.trans (width_le (K := K) (tick := tick) allocation hε sigma side c hc)
theorem q_eq_one_of_subsingleton (allocation : Allocation) (sigma : Placement) (side : Fin 3)
(c : Class (K := K) (tick := tick) sigma) [Subsingleton (Symbol (K := K) (tick := tick) sigma c)]
(hc : 0 < baseSize (base (K := K) (tick := tick) allocation sigma side) c)
(a : Symbol (K := K) (tick := tick) sigma c × Symbol (K := K) (tick := tick) sigma c) : q (K := K) (tick := tick) allocation sigma side c a = 1 := by
have hl (right : Bool) (u : JointPopulation.Shape)
(hu : 0 < base (K := K) (tick := tick) allocation sigma side c u) :
supportedHalfLaw allocation right c.1.val u (sigma side) (if right then a.2 else a.1) = 1 := by
have hu' : 0 < activeCounts allocation 1 c.1.val u := by
unfold base JointPopulationCompatibility.classCounts Counts groupCounts at hu
split_ifs at hu with he
· exact hu
· omega
rw [supportedHalfLaw_eq_of_counts_pos allocation 1 right c.1.val u hu']
have ht := halfLawAt_normalized allocation 1 right c.1.val u hu' (sigma side)
have he : (∑ b, halfLawAt right c.1.val u (sigma side) b) =
halfLawAt right c.1.val u (sigma side) (if right then a.2 else a.1) :=
Fintype.sum_subsingleton _ _
exact he.symm.trans ht
unfold q JointPairMixtureControls.pairMixture
have hn : (∑ u, (base (K := K) (tick := tick) allocation sigma side c u : ℝ) *
supportedHalfLaw allocation false c.1.val u (sigma side) a.1 *
supportedHalfLaw allocation true c.1.val u (sigma side) a.2) =
(baseSize (base (K := K) (tick := tick) allocation sigma side) c : ℝ) := by
rw [baseSize, Nat.cast_sum]
apply Finset.sum_congr rfl
intro u _
by_cases hu : 0 < base (K := K) (tick := tick) allocation sigma side c u
· have hleft : supportedHalfLaw allocation false c.1.val u (sigma side) a.1 = 1 := by
simpa only [Bool.false_eq_true, ite_false] using hl false u hu
have hright : supportedHalfLaw allocation true c.1.val u (sigma side) a.2 = 1 := by
simpa only [ite_true] using hl true u hu
rw [hleft, hright, mul_one, mul_one]
· simp only [Nat.eq_zero_of_not_pos hu, Nat.cast_zero, zero_mul]
rw [hn]
exact div_self (Nat.cast_ne_zero.mpr (Nat.ne_of_gt hc))
theorem pairWindow_of_completeKeep (allocation : Allocation) {m : ℕ} (hm : 0 < m)
{ε : ℝ} (hε : 0 ≤ ε) (sigma : Placement) (side : Fin 3)
(e : Targets (K := K) (tick := tick) allocation m sigma)
(w : Raw (K := K) (tick := tick) allocation m sigma) (hw : Admissible allocation m ε sigma side e w)
(hp : completeKeep allocation m ε (sigma side) sigma w) :
PairWindow (base (K := K) (tick := tick) allocation sigma side) (q (K := K) (tick := tick) allocation sigma side)
(Positions (K := K) (tick := tick) allocation m sigma w) (pairCounts (K := K) (tick := tick) allocation m sigma w)
(windowFactor (K := K) (tick := tick) allocation sigma * ε) := by
intro c hc a
by_cases hs : c.1.val.val.1.stage ≠ 2
· exact sharing_window (K := K) (tick := tick) allocation m hε sigma side e w hw hp.2.2 c hs hc a
· have hstage : c.1.val.val.1.stage = 2 := not_ne_iff.mp hs
have : Subsingleton (Symbol (K := K) (tick := tick) sigma c) := by
change Subsingleton c.1.val.val.1.Statistic
cases hh : c.1.val.val.1 with
| stageA h => simp [hh, Work.stage] at hstage
| stageB h => simp [hh, Work.stage] at hstage
| stageC h => dsimp [Work.Statistic]; infer_instance
have hpc : pairCounts (K := K) (tick := tick) allocation m sigma w c a =
Fintype.card (Positions (K := K) (tick := tick) allocation m sigma w c) := by
unfold pairCounts JointPopulationCompatibility.statisticCounts
have hall : ∀ i, JointPopulationCompatibility.statisticWord
(Counts (K := K) (tick := tick) allocation m sigma) (Letter (K := K) (tick := tick) sigma) (Letter (K := K) (tick := tick) sigma) (Symbol (K := K) (tick := tick) sigma) (Symbol (K := K) (tick := tick) sigma)
(projectedStatistic (K := K) (tick := tick) sigma) (projectedStatistic (K := K) (tick := tick) sigma)
(ownWord (K := K) (tick := tick) allocation m sigma w) w c i = a := fun _ => Subsingleton.elim _ _
simp [wordPopulation, hall]
have hn : (Fintype.card (Positions (K := K) (tick := tick) allocation m sigma w c) : ℝ) ≠ 0 := by
rw [positions_card (K := K) (tick := tick) allocation m ε sigma side e w hw c]
exact Nat.cast_ne_zero.mpr (Nat.ne_of_gt (Nat.mul_pos hm hc))
rw [hpc, div_self hn, q_eq_one_of_subsingleton (K := K) (tick := tick) allocation sigma side c hc a,
sub_self, abs_zero]
exact mul_nonneg (windowFactor_pos (K := K) (tick := tick) allocation sigma).le hε
theorem passing_pairWindow (allocation : Allocation) {m : ℕ} (hm : 0 < m)
{ε : ℝ} (hε : 0 ≤ ε) (sigma : Placement)
(e : Targets (K := K) (tick := tick) allocation m sigma)
(o : Orbit (K := K) (tick := tick) allocation m sigma) (ho : o ∈ (data (K := K) (tick := tick) allocation m ε sigma).orbits e)
(v : Variable (K := K) (tick := tick) allocation m sigma) (hv : v ∈ (data (K := K) (tick := tick) allocation m ε sigma).passing e o) :
PairWindow (base (K := K) (tick := tick) allocation sigma v.1) (q (K := K) (tick := tick) allocation sigma v.1)
(Positions (K := K) (tick := tick) allocation m sigma v.2) (pairCounts (K := K) (tick := tick) allocation m sigma v.2)
(windowFactor (K := K) (tick := tick) allocation sigma * ε) := by
have hpass := (mem_passing allocation m ε sigma e o v).mp hv
exact pairWindow_of_completeKeep (K := K) (tick := tick) allocation hm hε sigma v.1 e v.2
(AllFieldGroupAdmissible.full_admissible allocation m ε sigma e o ho v hpass.1) hpass.2
end MatrixMultiplication.AllFieldGroupPairWindows
end
end OAI