OAI/Dynamics/TriangleBilliards/SmoothingGenerators.lean
21 declarations, 0 contain sorry, 0 declared as axioms
- lemma
OAI.TriangularBilliards.supportedSmoothing_xDerivativeline 30 - lemma
OAI.TriangularBilliards.supportedSmoothing_fderiv_boundline 37 - lemma
OAI.TriangularBilliards.supportedSmoothing_memLpline 52 - lemma
OAI.TriangularBilliards.supportedSmoothing_xDerivative_memLpline 59 - lemma
OAI.TriangularBilliards.supportedSmoothing_generatorline 78 - lemma
OAI.TriangularBilliards.supportedSmoothing_eq_of_supportedline 97 - lemma
OAI.TriangularBilliards.supportedSmoothing_derivative_eq_of_supportedline 107 - lemma
OAI.TriangularBilliards.reflectedSmoothing_direction_memLpline 122 - lemma
OAI.TriangularBilliards.reflectedSmoothing_supported_generatorline 130 - lemma
OAI.TriangularBilliards.integral_pairing_toLpline 152 - lemma
OAI.TriangularBilliards.invariant_smoothing_direction_pairing_zeroline 162Source documentation
Exact local kernel-transport commutation for a bounded invariant field, expressed against arbitrary bounded fields with a sufficient vertex margin.
lemma invariant_smoothing_direction_pairing_zero (Q : Triangle) {ε R A : ℝ} (hε : 0 < ε) (hR : Q.safetyFactor * ε < R) (hsmall : 2 * R * Q.coordinateBound < 1) (hA : 2 * R + ε ≤ A) {f g : DoublePhase → ℂ} (hfm : StronglyMeasurable f) (hgm : StronglyMeasurable g) (hf : MemLp f 2 (doubleMeasure Q)) (hg : MemLp g 2 (doubleMeasure Q)) (hfi : (geodesicHilbertFlow Q).HasGenerator (hf.toLp f) 0) {H : ℝ} (hH : ∀ z, ‖g z‖ ≤ H) (hgs : SpatiallyZero Q A g) : (∫ z, reflectedSmoothingGradient Q ε f z (z.1.2 : ℂ) * conj (g z) ∂doubleMeasure Q) = 0 := by …Mentions: OAI.TriangularBilliards.Triangle, OAI.TriangularBilliards.DoublePhase, OAI.TriangularBilliards.doubleMeasure, OAI.TriangularBilliards.geodesicHilbertFlow, OAI.TriangularBilliards.SpatiallyZero, OAI.TriangularBilliards.reflectedSmoothingGradient
- lemma
OAI.TriangularBilliards.reflectedSmoothing_direction_norm_boundline 185 - lemma
OAI.TriangularBilliards.reflectedSmoothing_direction_stronglyMeasurableline 193 - lemma
OAI.TriangularBilliards.invariant_smoothing_direction_zeroline 203Source documentation
The actual local X-commutation equation for a bounded invariant field. No local distributional transport statement is used as an extra hypothesis.
lemma invariant_smoothing_direction_zero (Q : Triangle) {ε R A : ℝ} (hε : 0 < ε) (hR : Q.safetyFactor * ε < R) (hsmall : 2 * R * Q.coordinateBound < 1) (hA : 2 * R + ε ≤ A) {f : DoublePhase → ℂ} (hfm : StronglyMeasurable f) (hf : MemLp f 2 (doubleMeasure Q)) (hfi : (geodesicHilbertFlow Q).HasGenerator (hf.toLp f) 0) {H : ℝ} (hH : ∀ z, ‖f z‖ ≤ H) : ∀ᵐ z ∂doubleMeasure Q, A ≤ Q.clearance z.1.1 → reflectedSmoothingGradient Q ε f z (z.1.2 : ℂ) = 0 := by …Mentions: OAI.TriangularBilliards.Triangle, OAI.TriangularBilliards.DoublePhase, OAI.TriangularBilliards.doubleMeasure, OAI.TriangularBilliards.geodesicHilbertFlow, OAI.TriangularBilliards.reflectedSmoothingGradient
- lemma
OAI.TriangularBilliards.Analysis.pairing_add_sum_symmetricline 258 - lemma
OAI.TriangularBilliards.spatialKernel_stronglyMeasurableline 284 - lemma
OAI.TriangularBilliards.directS_adjointline 289 - lemma
OAI.TriangularBilliards.reflectedS_adjointline 301 - lemma
OAI.TriangularBilliards.directS_memLpline 315 - lemma
OAI.TriangularBilliards.reflectedS_memLpline 320 - lemma
OAI.TriangularBilliards.reflectedSmoothing_adjointline 325