Functional Inequalities for Heavy Tailed Distributions and Application to Isoperimetry
By Patrick Cattiaux, Nathael Gozlan, Arnaud Guillin, Cyril Roberto. 2010
77 citations recorded by the source corpus.
This paper is devoted to the study of probability measures with heavy tails. Using the Lyapunov function approach we prove that such measures satisfy different kind of functional inequalities such as weak Poincare and weak Cheeger, weighted Poincare and weighted Cheeger inequalities and their dual forms. Proofs are short and we cover very large situations. For product measures on $\mathbb{R}^n$ we obtain the optimal dimension dependence using the mass transportation method. Then we derive (optimal) isoperimetric inequalities. Finally we deal with spherically symmetric measures. We recover and improve many previous result
Subfields: Applied Mathematics, Geometry and Topology
View Paper: https://www.semanticscholar.org/paper/7641a392bd8afec126e13c7928607307f48a1565
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In Applied Mathematics
- Arnaud Guillin
- Patrick Cattiaux
- Liming Wu
- Nathael Gozlan
- Pierre-André Zitt
- Djalil CHAFAÏ
- Nicolas Privault
- Mathew D. Penrose
In Geometry and Topology
- Arnaud Guillin
- Patrick Cattiaux
- Liming Wu
- Nathael Gozlan
- Daniel Lacker
- Bruno Saussereau
- Daniel Paulin
- Emanuel Milman
Citations in the corpus
- Poincaré inequalities and hitting times (2010, methodology): “…function ϕ growing to infinity and R > 0, such that ϕ v q (x) ≤ qv q − 1 (x) for | x | ≥ R. (5.9) Indeed if (5.9) holds, we have Lv q (x) ≤ − ϕ v q (x) for | x | large enough, and v q is thus a ϕ -Lyapunov function in the terminology of [12] and [19] (see Definition 2.2 in the first reference).”
- Central limit theorems for additive functionals of ergodic Markov diffusions processes (2011, unknown): “ αdx associated to the να-reversible generator L= ∆−αx|x|α−2.∇. With W(x) = ea|x|α for large |x|, one easily gets that for large |x| LW(x) ≤ −cα2a(a−1)|x|2α−2ea|x|α so that by Theorems 2.8 and 5.1 in [CGGR10], we get that να verifies a weak Poincar´e inequality with β(s) = kn,α log(2/s) 2 α −2. We ma”
- A note on Talagrand’s transportation inequality and logarithmic Sobolev inequality (2008, background): “One will also remark that contrary to [5, 12 ,13], we will not use localization technique, constants are thus easier to derive.”