import Mathlib import OAI.Probability.SKBarriers.Replicas.TripleScheduleEndpoint import OAI.Probability.SKBarriers.Locking.NarrowScheduleMass import OAI.Probability.SKBarriers.Locking.NarrowRetainedStats namespace OAI section noncomputable section open scoped BigOperators Matrix open MeasureTheory ProbabilityTheory Set namespace SK.Analytic @[simp] theorem narrowClockPerturbed_zero (a b c r q δ : ℝ) : narrowClockPerturbed a b c r q δ 0 0 0=tripleClockMatrix a b c r q := by rw [narrowClockPerturbed_pair_zero,tripleClockPerturbed_zero] def narrowCrossPenalty (c v w : List (ℝ × (ℝ × ℝ))) : ℝ := weightedCrossPenalty c 0+weightedCrossPenalty v (weightedCross c)+weightedCrossPenalty w (weightedCross c) def narrowQuarticPenalty (c v w : List (ℝ × (ℝ × ℝ))) : ℝ := weightedVariancePenalty c 0/3+narrowNoisePenalty (mergedProductBranches v w) (weightedVariance c) theorem narrowSchedule_covariance (δ : ℝ) (c v w : List (ℝ × (ℝ × ℝ))) (t : List (ℝ × ℝ)) (hv : weightedUnderlying v=weightedUnderlying w) (hy : weightedCross c+weightedCross w=0) : matrixChainCovariance (narrowSchedule δ c v w t)= tripleClockPerturbed (rawVariance (weightedUnderlying c++weightedUnderlying w++t)) (rawVariance (weightedUnderlying c++weightedUnderlying w++t)) (rawVariance (weightedUnderlying c++weightedUnderlying w++t)) (rawVariance (weightedUnderlying c)) (rawVariance (weightedUnderlying c++weightedUnderlying w)) δ (weightedCross c+weightedCross v) (narrowVariance c v w) := by have hc := narrowCommonSchedule_covariance δ c 0 0 0 simp only [narrowClockPerturbed_zero,tripleClockMatrix_zero,zero_add] at hc have hm := narrowMiddleSchedule_covariance δ (mergedProductBranches v w) (rawVariance (weightedUnderlying c)) (rawVariance (weightedUnderlying c)) (rawVariance (weightedUnderlying c)) (weightedCross c) (weightedCross c) (weightedVariance c) simp only [mergedProductBranches_left,mergedProductBranches_right,hv,hy,narrowClockPerturbed_pair_zero] at hm simp only [narrowSchedule,matrixChainCovariance_append,hc] rw [hm,tripleTailSchedule_covariance] simp only [rawVariance_append,narrowVariance] theorem narrowSchedule_penalty (δ : ℝ) (c v w : List (ℝ × (ℝ × ℝ))) (t : List (ℝ × ℝ)) (hv : weightedUnderlying v=weightedUnderlying w) (hy : weightedCross c+weightedCross w=0) : matrixChainPenalty (narrowSchedule δ c v w t) 0= 3*rawPenalty (weightedUnderlying c++weightedUnderlying w++t) 0+ 4*δ^2*(narrowCrossPenalty c v w+narrowVariance c v w*rawArea t)+ 4*δ^4*narrowQuarticPenalty c v w := by have hc := narrowCommonSchedule_covariance δ c 0 0 0 simp only [narrowClockPerturbed_zero,tripleClockMatrix_zero,zero_add] at hc have hpc := narrowCommonSchedule_penalty δ c 0 0 0 simp only [narrowClockPerturbed_zero,tripleClockMatrix_zero] at hpc have hm := narrowMiddleSchedule_covariance δ (mergedProductBranches v w) (rawVariance (weightedUnderlying c)) (rawVariance (weightedUnderlying c)) (rawVariance (weightedUnderlying c)) (weightedCross c) (weightedCross c) (weightedVariance c) simp only [mergedProductBranches_left,mergedProductBranches_right,hv,hy,narrowClockPerturbed_pair_zero] at hm have hpm := narrowMiddleSchedule_penalty δ (mergedProductBranches v w) (rawVariance (weightedUnderlying c)) (rawVariance (weightedUnderlying c)) (rawVariance (weightedUnderlying c)) (weightedCross c) (weightedCross c) (weightedVariance c) simp only [mergedProductBranches_left,mergedProductBranches_right,hv] at hpm simp only [narrowSchedule,matrixChainPenalty_append,matrixChainCovariance_append,zero_add,hc,hpc,hm,hpm, tripleTailSchedule_penalty,rawPenalty_append,rawVariance_append,narrowCrossPenalty,narrowVariance,narrowQuarticPenalty] ring theorem narrowNoisePenalty_nonneg (l : List NarrowMiddleIncrement) (hm : ∀ p∈l,0≤productMass p) {K : ℝ} (hK : 0≤K) : 0≤narrowNoisePenalty l K := by induction l generalizing K with | nil => rfl | cons p l ih => change 0≤productMass p*((K+(narrowMiddleNoise p)^2)^2-K^2)+narrowNoisePenalty l (K+(narrowMiddleNoise p)^2) apply add_nonneg · apply mul_nonneg (hm p (List.mem_cons_self ..)) nlinarith [sq_nonneg (narrowMiddleNoise p)] · exact ih (fun q hq => hm q (List.mem_cons_of_mem _ hq)) (by positivity) theorem narrowQuarticPenalty_nonneg (c v w : List (ℝ × (ℝ × ℝ))) (hc : ∀ p∈c,0≤p.1) (hv : ∀ p∈v,0≤p.1) (hw : ∀ p∈w,0≤p.1) : 0≤narrowQuarticPenalty c v w := by apply add_nonneg (div_nonneg (weightedVariancePenalty_nonneg c hc le_rfl) (by norm_num)) apply narrowNoisePenalty_nonneg · intro p hp simp only [mergedProductBranches,List.mem_merge,List.mem_map] at hp rcases hp with ⟨q,hq,rfl⟩|⟨q,hq,rfl⟩ · exact hv q hq · exact div_nonneg (hw q hq) (by norm_num) · unfold weightedVariance exact List.sum_nonneg (fun x hx => by obtain ⟨p,hp,rfl⟩ := List.mem_map.mp hx; positivity) theorem narrowConstrainedPressure_schedule {N : ℕ} (hN : 0 p.1≤q.1)) (ht : rawVariance (weightedUnderlying c++weightedUnderlying w++t)=1) (hg : weightedCross c+weightedCross v=1) (hD : Nonempty (MatrixStates N 3 (tripleGram (rawVariance (weightedUnderlying c)) δ (rawVariance (weightedUnderlying c++weightedUnderlying w))))) : matrixConstrainedPressure N 3 β (tripleGram (rawVariance (weightedUnderlying c)) δ (rawVariance (weightedUnderlying c++weightedUnderlying w))) ≤ vectorIncrementChain ((narrowSchedule δ c v w t).map (fun p => (p.1,β • p.2))) (fun x => ∑ u,scalarSpinTerminal (x u)) 0- 3*β^2/4*rawPenalty (weightedUnderlying c++weightedUnderlying w++t) 0- β^2*δ^2*(narrowCrossPenalty c v w+narrowVariance c v w*rawArea t)+ β^2*δ^4*(narrowVariance c v w)^2 := by have H := matrixConstrainedPressure_chain hN β _ hD (narrowSchedule δ c v w t) (narrowSchedule_mass_bounds δ c v w t hv hm) (narrowSchedule_monotone δ c v w t hv (fun p hp => (hm p hp).1) hs) have hcw : ∀ p∈weightedUnderlying c++weightedUnderlying w,0≤p.1 := fun p hp => (hm p (List.mem_append_left _ hp)).1 have hc : ∀ p∈c,0≤p.1 := fun p hp => hcw (p.1,p.2.1) (List.mem_append_left _ (List.mem_map.mpr ⟨p,hp,rfl⟩)) have hw : ∀ p∈w,0≤p.1 := fun p hp => hcw (p.1,p.2.1) (List.mem_append_right _ (List.mem_map.mpr ⟨p,hp,rfl⟩)) have hv' : ∀ p∈v,0≤p.1 := by intro p hp have hp' : (p.1,p.2.1)∈weightedUnderlying w := hv ▸ List.mem_map.mpr ⟨p,hp,rfl⟩ exact hcw _ (List.mem_append_right _ hp') have hq := narrowQuarticPenalty_nonneg c v w hc hv' hw simp only [narrowSchedule_covariance δ c v w t hv hy,ht,hg,tripleClockPerturbed_symmetric, triplePerturbedMatrix_mismatch,narrowSchedule_penalty δ c v w t hv hy] at H have hn : 0≤β^2*δ^4*narrowQuarticPenalty c v w := by positivity nlinarith end SK.Analytic end end end OAI