OAI/Analysis/LpDimension/Discretization.lean
21 declarations, 0 contain sorry, 0 declared as axioms
- def
OAI.SubpolynomialLp.PairIndexline 13 - instance
OAI.SubpolynomialLp.(instance at line 14)line 14 - lemma
OAI.SubpolynomialLp.pairIndex_cardline 16 - def
OAI.SubpolynomialLp.pairPowerline 22 - lemma
OAI.SubpolynomialLp.pairPower_nonnegline 25 - lemma
OAI.SubpolynomialLp.pairPower_continuousline 28 - lemma
OAI.SubpolynomialLp.pairPower_pair_le_sumline 35 - lemma
OAI.SubpolynomialLp.pairPower_sum_boundline 43 - def
OAI.SubpolynomialLp.normalizedLabelsline 54 - def
OAI.SubpolynomialLp.normalizedPowersline 57 - lemma
OAI.SubpolynomialLp.normalizedLabels_compactline 60 - lemma
OAI.SubpolynomialLp.normalizedPowers_compactline 71 - lemma
OAI.SubpolynomialLp.normalizedPowers_sumline 75 - lemma
OAI.SubpolynomialLp.pairPower_smul_subline 80 - lemma
OAI.SubpolynomialLp.pairPower_normalizeline 87 - lemma
OAI.SubpolynomialLp.lp_norm_rpow_integralline 106 - lemma
OAI.SubpolynomialLp.lpDifference_integrableline 115 - lemma
OAI.SubpolynomialLp.lpDifference_integralline 123 - lemma
OAI.SubpolynomialLp.pad_coordinatesline 133 - lemma
OAI.SubpolynomialLp.exact_discretization_ge_oneline 146Source documentation
Ball's finite-coordinate isometry, obtained by applying Carathéodory's theorem to the normalized pairwise
pth powers.lemma exact_discretization_ge_one (p : ℝ) (hp : 1 ≤ p) (n : ℕ) (hn : 2 ≤ n) {Ω : Type uΩ} [MeasurableSpace Ω] (μ : Measure Ω) (x : Fin n → Lp ℝ (ENNReal.ofReal p) μ) (hx : Function.Injective x) : ∃ y : Fin n → Fin (n.choose 2) → ℝ, ∀ i j, coordinateDistance p (y i) (y j) = ‖x i-x j‖ := by …Mentions: OAI.SubpolynomialLp.coordinateDistance
- lemma
OAI.SubpolynomialLp.exact_discretizationline 224