import OAI.Analysis.CircleDomains.Probability.ResidualTailNull import OAI.Analysis.CircleDomains.Selection.SquareVisitTolls namespace OAI /-! The stored rational-interval constraints give null residual-incidence envelopes under the actual square bounds on visits. -/ open Set Filter Function MeasureTheory open scoped ENNReal Topology Classical noncomputable section namespace CircleDomainRigidity variable {X Y : Type*} [MetricSpace X] [MetricSpace Y] [MeasurableSpace X] [MeasurableSpace C(PathTime, X)] private def rationalStart : RationalPathTime := ⟨0, by norm_num⟩ private def rationalEnd : RationalPathTime := ⟨1, by norm_num⟩ private theorem rationalStart_eq : rationalStart.toTime = (⊥ : PathTime) := by apply Subtype.ext norm_num [rationalStart, RationalPathTime.toTime] private theorem rationalEnd_eq : rationalEnd.toTime = (⊤ : PathTime) := by apply Subtype.ext norm_num [rationalEnd, RationalPathTime.toTime] theorem baseCode_prior_bound (d : PathCodeData X Y) (Γ : BasePathCode d) (i n : ℕ) : ResidualIncidenceBound d.dust univ pathHitSet (d.priorDeletions i n) (d.priorLaws i) (priorHitMass (d.priorLaws i)) Γ.val := by have h := Γ.property.1.2.2.1 i n rationalStart rationalEnd simpa only [rationalStart_eq, rationalEnd_eq, Icc_bot_top] using h theorem baseCode_level_bound (d : PathCodeData X Y) (Γ : BasePathCode d) (i n : ℕ) : ResidualIncidenceBound d.dust univ (d.levels i) (d.flagDeletions n) volume (d.levelWeights i) Γ.val := by have h := Γ.property.1.2.2.2.1 i n rationalStart rationalEnd simpa only [rationalStart_eq, rationalEnd_eq, Icc_bot_top] using h variable [BorelSpace X] [SecondCountableTopology X] [BorelSpace C(PathTime, X)] theorem ae_code_boundaryToll_finite (d : PathCodeData X Y) (P : ProbabilityMeasure (BasePathCode d)) (m : X → ℝ≥0∞) (hm : (support m).Countable) (hweight : countingSquareNorm (fun x : support m => m x.val) < ∞) (hvisits : countingSquareNorm (fun x : support m => meanVisitCount (codePathLaw d P) x.val) < ∞) : ∀ᵐ Γ ∂(P : Measure (BasePathCode d)), boundaryToll Γ.val.1 m < ∞ := by have h := ae_boundaryToll_finite (codePathLaw d P) m hm hweight hvisits exact (ae_map_iff (measurable_codePath d).aemeasurable (measurableSet_lt (measurable_boundaryToll hm) measurable_const)).mp h theorem ae_code_prior_envelope_null (d : PathCodeData X Y) (P : ProbabilityMeasure (BasePathCode d)) (i : ℕ) (hm : (support (priorHitMass (d.priorLaws i))).Countable) (hweight : countingSquareNorm (fun x : support (priorHitMass (d.priorLaws i)) => priorHitMass (d.priorLaws i) x.val) < ∞) (hvisits : countingSquareNorm (fun x : support (priorHitMass (d.priorLaws i)) => meanVisitCount (codePathLaw d P) x.val) < ∞) (hcover : ∀ x ∈ support (priorHitMass (d.priorLaws i)), ∀ᶠ n in atTop, x ∈ d.priorDeletions i n) : ∀ᵐ Γ ∂(P : Measure (BasePathCode d)), (d.priorLaws i) (⋂ n, {η | (Γ.val, η) ∈ residualIncidence d.dust univ pathHitSet (d.priorDeletions i n)}) = 0 := by filter_upwards [ae_code_boundaryToll_finite d P _ hm hweight hvisits] with Γ hΓ exact residual_incidence_envelope_null d.dust univ pathHitSet _ _ hm _ hcover Γ.val hΓ (baseCode_prior_bound d Γ i) theorem ae_code_level_envelope_null (d : PathCodeData X Y) (P : ProbabilityMeasure (BasePathCode d)) (i : ℕ) (hm : (support (d.levelWeights i)).Countable) (hweight : countingSquareNorm (fun x : support (d.levelWeights i) => d.levelWeights i x.val) < ∞) (hvisits : countingSquareNorm (fun x : support (d.levelWeights i) => meanVisitCount (codePathLaw d P) x.val) < ∞) (hcover : ∀ x ∈ support (d.levelWeights i), ∀ᶠ n in atTop, x ∈ d.flagDeletions n) : ∀ᵐ Γ ∂(P : Measure (BasePathCode d)), volume (⋂ n, {t | (Γ.val, t) ∈ residualIncidence d.dust univ (d.levels i) (d.flagDeletions n)}) = 0 := by filter_upwards [ae_code_boundaryToll_finite d P _ hm hweight hvisits] with Γ hΓ exact residual_incidence_envelope_null d.dust univ (d.levels i) _ _ hm _ hcover Γ.val hΓ (baseCode_level_bound d Γ i) end CircleDomainRigidity end end OAI