OAI/Computability/UniqueGames/Inverse/KMSAnalyticHybridEnergyImageTransportLemmas.lean
7 declarations, 0 contain sorry, 0 declared as axioms
Product Hybrid energy from actual mixed slices
The derivative's exact rank support is partitioned by its actual compressed image. Each image is put in complement coordinates, and the proved coefficient factorization bounds that contribution by an actual mixed slice. The finite image, extension, and complementary-map counts fit the mixed denominator. The sole analytic premise is the displayed uniform bound on actual slices.
- theorem
OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.image_fiber_coefficient_transportline 31Source documentation
The original image contribution is the actual adapted fiber coefficient used by the mixed-slice estimate.
theorem image_fiber_coefficient_transport (W D : Submodule F2 U) (h : IsCompl W D) [Fintype ((A × (W × D)) →ₗ[F2] (B × C))] [Fintype ((B × C) →ₗ[F2] (A × (W × D)))] (z : B →ₗ[F2] W) (f : ((A × U) →ₗ[F2] (B × C)) → ℝ) (T : (A × U) →ₗ[F2] (B × C)) : (∑ S : (B × C) →ₗ[F2] (A × U), if LinearIdentities.Hybrid S (LinearMap.range (LinearMap.inl F2 A U)) (LinearMap.range (LinearMap.inl F2 B C)) ∧ (LinearMap.snd F2 A U).comp (S.comp (LinearMap.inl F2 B C)) = W.subtype.comp z then linearCoeff (rankComponent (Module.finrank F2 (A × (W × C))) f) S * (linearTraceCharacter S T).re else 0) = adaptedFiberCoefficient z (imagePullback W D h f) (imageTranslate W D h T) := by …Mentions: OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.adaptedFiberCoefficient, OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.imagePullback, OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.imageTranslate
- def
OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.ProductMixedSliceBoundline 116Source documentation
The actual mixed-slice hypothesis in all coordinates adapted to the compressed image. It is a bound on
smallComponent, with the original function and translate transported by the explicit product equivalence.def ProductMixedSliceBound (i : ℕ) (f : ((A × U) →ₗ[F2] (B × C)) → ℝ) (T : (A × U) →ₗ[F2] (B × C)) (L : ℝ) : Prop := … - def
OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.productFiberCoefficientline 133Source documentation
The selected coefficient at one ordinary product-compressed frequency.
def productFiberCoefficient (i : ℕ) (f : ((A × U) →ₗ[F2] (B × C)) → ℝ) (T : (A × U) →ₗ[F2] (B × C)) (Z : B →ₗ[F2] U) : ℝ := … - theorem
OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.productFiberCoefficient_imageTransportline 144Source documentation
The original coefficient wrapper agrees with the adapted coefficient at the exact dimension of the small comparison space.
theorem productFiberCoefficient_imageTransport (W D : Submodule F2 U) (hD : IsCompl W D) (z : B →ₗ[F2] W) (f : ((A × U) →ₗ[F2] (B × C)) → ℝ) (T : (A × U) →ₗ[F2] (B × C)) (i : ℕ) (hi : Module.finrank F2 (A × (W × C)) = i) : productFiberCoefficient i f T (W.subtype.comp z) = adaptedFiberCoefficient z (imagePullback W D hD f) (imageTranslate W D hD T) := by …Mentions: OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.productFiberCoefficient, OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.adaptedFiberCoefficient, OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.imagePullback, OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.imageTranslate
- theorem
OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.product_energy_eq_filter_coefficientline 155Source documentation
The exact energy identity using the product coefficient wrapper.
theorem product_energy_eq_filter_coefficient (T : (A × U) →ₗ[F2] (B × C)) (f : ((A × U) →ₗ[F2] (B × C)) → ℝ) (i : ℕ) : (𝔼 N, hybridDerivative (LinearMap.range (LinearMap.inl F2 A U)) (LinearMap.range (LinearMap.inl F2 B C)) T (rankComponent i f) N ^ 2) = ∑ Z : B →ₗ[F2] U with Module.finrank F2 Z.range = i - (Module.finrank F2 A + Module.finrank F2 C), productFiberCoefficient i f T Z ^ 2 := by …Mentions: OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.productFiberCoefficient
- theorem
OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.product_image_energy_le_of_mixedline 174Source documentation
One actual compressed-image contribution follows from the uniform mixed-slice premise, retaining the exact finite-coordinate cost.
theorem product_image_energy_le_of_mixed (i : ℕ) (f : ((A × U) →ₗ[F2] (B × C)) → ℝ) (hf : KMSBasisInvariant.IsBasisInvariant f) (T : (A × U) →ₗ[F2] (B × C)) (L : ℝ) (hi : i ≤ Module.finrank F2 (A × U)) (ho : Module.finrank F2 A + Module.finrank F2 C ≤ i) (hMixed : ProductMixedSliceBound i f T L) (W : RankImage F2 U (i - (Module.finrank F2 A + Module.finrank F2 C))) : (∑ z : {z : B →ₗ[F2] W.val // Function.Surjective z}, productFiberCoefficient i f T (W.val.subtype.comp z.val) ^ 2) ≤ ((2 : ℝ) ^ (Module.finrank F2 C * (Module.finrank F2 U - (i - (Module.finrank F2 A + Module.finrank F2 C))))) ^ 2 * …Mentions: OAI.UniqueGamesTheorem.Inverse.KMSBasisInvariant.IsBasisInvariant, OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.ProductMixedSliceBound, OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.RankImage, OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.productFiberCoefficient
- theorem
OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.product_hybrid_energy_le_of_mixedline 250Source documentation
Actual product Hybrid derivative energy follows from the actual mixed slice estimate. Orders above the selected rank are included automatically.
theorem product_hybrid_energy_le_of_mixed (i : ℕ) (f : ((A × U) →ₗ[F2] (B × C)) → ℝ) (hf : KMSBasisInvariant.IsBasisInvariant f) (T : (A × U) →ₗ[F2] (B × C)) (L : ℝ) (hL : 0 ≤ L) (hi : i ≤ Module.finrank F2 (A × U)) (hMixed : ProductMixedSliceBound i f T L) : (𝔼 N, hybridDerivative (LinearMap.range (LinearMap.inl F2 A U)) (LinearMap.range (LinearMap.inl F2 B C)) T (rankComponent i f) N ^ 2) ≤ L := by …Mentions: OAI.UniqueGamesTheorem.Inverse.KMSBasisInvariant.IsBasisInvariant, OAI.UniqueGamesTheorem.Inverse.KMSAnalyticHybridEnergy.ProductMixedSliceBound