Download lean/OAI/NumberTheory/DukePrimeDegree/MainUnconditional.lean from roseking/openAI-math-dataset: direct link, hf CLI and curl.
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4.92 kB
| import OAI.NumberTheory.DukePrimeDegree.MainStarkDischarged | |
| import OAI.NumberTheory.DukePrimeDegree.Entropy.RegularEntropyDischarge | |
| namespace OAI | |
| /-! # Prime-degree torus-packet equidistribution | |
| The manuscript's full packet theorem, after discharging both the Stark | |
| zero-exclusion input and the prime-degree positive-entropy rigidity input. | |
| The lattice and field may vary, so nonmaximal multiplier orders and | |
| arbitrary prescribed local homothety types are included. Tightness gives | |
| no escape of mass for the complete volume-weighted packets. | |
| -/ | |
| open MeasureTheory Filter | |
| open scoped Topology | |
| namespace DukePrimeDegree | |
| open PrimeDegreePackets | |
| universe u | |
| /-- Theorem 1.1: complete volume-weighted packets converge to Haar | |
| probability as their multiplier-order discriminants tend to infinity. -/ | |
| theorem prime_degree_packet_equidistribution_unconditional | |
| (d : ℕ) (hprime : Nat.Prime (d+1)) (hfive : 5 ≤ d+1) | |
| (K : ℕ → Type u) [∀ i, Field (K i)] [∀ i, NumberField (K i)] | |
| [∀ i, NumberField.IsTotallyReal (K i)] | |
| (M : ∀ i, PrimeDegreePackets.FullLattice (d+1) (K i)) | |
| (σ : ∀ i, OrderedEmbeddings (d+1) (K i)) | |
| (hn : ∀ i, Module.finrank ℚ (K i)=d+1) | |
| (hD : Tendsto (fun i => PrimeDegreePackets.multiplierDiscriminant (M i)) atTop atTop) : | |
| ∃ ν : ProbabilityMeasure (X (d+1)), | |
| IsHaarProbability (ν : Measure (X (d+1))) ∧ | |
| Tendsto (fun i => packetProbability (M i) (σ i) (hn i) | |
| (hprime.odd_of_ne_two (by omega))) atTop (𝓝 ν) ∧ | |
| IsTightMeasureSet (Set.range (fun i => packetMeasure (M i) (σ i))) := by | |
| exact prime_degree_packet_equidistribution_of_EKL d hprime hfive | |
| (eklPrimeInput_unconditional d) K M σ hn hD | |
| /-- The same packets converge to any specified Haar probability. -/ | |
| theorem prime_degree_packets_tendsto_haar_unconditional | |
| (d : ℕ) (hprime : Nat.Prime (d+1)) (hfive : 5 ≤ d+1) | |
| (K : ℕ → Type u) [∀ i, Field (K i)] [∀ i, NumberField (K i)] | |
| [∀ i, NumberField.IsTotallyReal (K i)] | |
| (M : ∀ i, PrimeDegreePackets.FullLattice (d+1) (K i)) | |
| (σ : ∀ i, OrderedEmbeddings (d+1) (K i)) | |
| (hn : ∀ i, Module.finrank ℚ (K i)=d+1) | |
| (hD : Tendsto (fun i => PrimeDegreePackets.multiplierDiscriminant (M i)) atTop atTop) | |
| (m : ProbabilityMeasure (X (d+1))) | |
| (hm : IsHaarProbability (m : Measure (X (d+1)))) : | |
| Tendsto (fun i => packetProbability (M i) (σ i) (hn i) | |
| (hprime.odd_of_ne_two (by omega))) atTop (𝓝 m) := by | |
| obtain ⟨ν,hν,hconv,_⟩ := | |
| prime_degree_packet_equidistribution_unconditional d hprime hfive K M σ hn hD | |
| have heq : ν=m := Subtype.ext (isHaarProbability_unique hν hm) | |
| rwa [heq] at hconv | |
| /-- Theorem 1.1 as weak convergence of the actual complete packet measures, | |
| including tightness of the entire family. -/ | |
| theorem prime_degree_packet_measure_equidistribution_unconditional | |
| (d : ℕ) (hprime : Nat.Prime (d+1)) (hfive : 5 ≤ d+1) | |
| (K : ℕ → Type u) [∀ i, Field (K i)] [∀ i, NumberField (K i)] | |
| [∀ i, NumberField.IsTotallyReal (K i)] | |
| (M : ∀ i, PrimeDegreePackets.FullLattice (d+1) (K i)) | |
| (σ : ∀ i, OrderedEmbeddings (d+1) (K i)) | |
| (hn : ∀ i, Module.finrank ℚ (K i)=d+1) | |
| (hD : Tendsto (fun i => PrimeDegreePackets.multiplierDiscriminant (M i)) atTop atTop) : | |
| ∃ ν : Measure (X (d+1)), IsHaarProbability ν ∧ | |
| WeakProbabilityConvergence (fun i => packetMeasure (M i) (σ i)) ν ∧ | |
| IsTightMeasureSet (Set.range (fun i => packetMeasure (M i) (σ i))) := by | |
| obtain ⟨ν, hν, hconv, htight⟩ := | |
| prime_degree_packet_equidistribution_unconditional d hprime hfive K M σ hn hD | |
| refine ⟨(ν : Measure (X (d+1))), hν, ?_, htight⟩ | |
| exact (weakProbabilityConvergence_iff | |
| (fun i => packetProbability (M i) (σ i) (hn i) | |
| (hprime.odd_of_ne_two (by omega))) ν).mpr hconv | |
| /-- The complete packet measures converge weakly to any specified Haar | |
| probability, in the formulation by bounded continuous test functions. -/ | |
| theorem prime_degree_packet_measures_tendsto_haar_unconditional | |
| (d : ℕ) (hprime : Nat.Prime (d+1)) (hfive : 5 ≤ d+1) | |
| (K : ℕ → Type u) [∀ i, Field (K i)] [∀ i, NumberField (K i)] | |
| [∀ i, NumberField.IsTotallyReal (K i)] | |
| (M : ∀ i, PrimeDegreePackets.FullLattice (d+1) (K i)) | |
| (σ : ∀ i, OrderedEmbeddings (d+1) (K i)) | |
| (hn : ∀ i, Module.finrank ℚ (K i)=d+1) | |
| (hD : Tendsto (fun i => PrimeDegreePackets.multiplierDiscriminant (M i)) atTop atTop) | |
| (m : ProbabilityMeasure (X (d+1))) | |
| (hm : IsHaarProbability (m : Measure (X (d+1)))) : | |
| WeakProbabilityConvergence (fun i => packetMeasure (M i) (σ i)) | |
| (m : Measure (X (d+1))) := by | |
| exact (weakProbabilityConvergence_iff | |
| (fun i => packetProbability (M i) (σ i) (hn i) | |
| (hprime.odd_of_ne_two (by omega))) m).mpr | |
| (prime_degree_packets_tendsto_haar_unconditional d hprime hfive K M σ hn hD m hm) | |
| end DukePrimeDegree | |
| end OAI | |