On the variation of the Hardy-Littlewood maximal function
By Ondvrej Kurka. 2012
101 citations recorded by the source corpus.
We show that a function $ f $ of bounded variation satisfies $$ \Var Mf \leq C \Var f $$ where $ Mf $ is the centered Hardy-Littlewood maximal function of $ f $. Consequently, the operator $ f \mapsto (Mf)' $ is bounded from $ W^{1,1}(R) $ to $ L^{1}(R) $. This answers a question of Hajlasz and Onninen in the one-dimensional case.
Subfields: Applied Mathematics, Mathematical Physics
View Paper: https://www.semanticscholar.org/paper/8cca827d45785c849511d971b10adfb28daf1d4e
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In Applied Mathematics
- Emanuel Carneiro
- Jos'e Madrid
- L. Pierce
- Hannes Luiro
- Shuanglin Shao
- Aynur Bulut
- William Beckner
- Diego R. Moreira
In Mathematical Physics
- Emanuel Carneiro
- Jos'e Madrid
- L. Pierce
- Hannes Luiro
- Shuanglin Shao
- Aynur Bulut
- William Beckner
- Diego R. Moreira
Citations in the corpus
- Derivative bounds for fractional maximal functions (2015, background): “It is also shown in [14] that if f ∈ W (1,1)(R), then Mf is weakly differentiable and (1.”
- The variation of the maximal function of a radial function (2017, background): “5 . The author was supported by the Academy of Finland, project no. 292797. 1 2 HANNESLUIRO proved by Tanaka [Ta]. For M c the problem turns out to be very complicated also when n = 1. However, Kurka [Ku] managed to show that the answer is positive also in this case. The goal of this paper is to dev”
- Endpoint Sobolev and BV continuity for maximal operators, II (2017, background): “A complete solution was reached only in dimension d = 1 in [2, 17, 29] and partial progress on the general case d > 1 was obtained by Haj lasz and Malý [11] and, more recently, by Saari [26] and Luiro [22].”