Trudinger-Moser inequality with remainder terms
By C. Tintarev. 2012
90 citations recorded by the source corpus.
The paper gives an improvement of the Trudinger-Moser inequality, in which the constraint set is defined not by the squared gradient norm, but with the squared gradient norm minus a remainder term of the weighted L^p-type. This is a two-dimensional counterpart of the Hardy-Sobolev-Mazya inequality in higher dimensions, which is a similar refinement of the limiting Sobolev inequality. In particular, we generalize two known cases of remainder terms of potential type (i.e. weighted L^2-terms) found by Adimurthi and Druet and by Wang and Ye. In addition, we prove the inequality with a L^p-remainder, p>2, as well as give an analogous improvement for the Onofri-Beckner inequality.
Subfields: Applied Mathematics, Computational Theory and Mathematics
View Paper: https://www.semanticscholar.org/paper/06a4c323da5e2f8cd58cd55a187444747bfaae08
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In Applied Mathematics
In Computational Theory and Mathematics
Citations in the corpus
- Extremal functions for Trudinger-Moser inequalities of Adimurthi-Druet type in dimension two (2015, background): “r-Moser inequality with interior singularity had been established by Adimurthi-Sandeep [2] on bounded smooth domain and Adimurthi and the author [4] on the whole Euclidean space. Moreover C. Tintarev [36] modified the classical Trudinger-Moser inequality as follows: LetΩ be a smooth bounded domain in”
- Trudinger–Moser inequality in the hyperbolic space ℍN (2013, background): “Versions of the Trudinger–Moser inequality with a remainder term related to the metric of the Poincaré ball were recently proved in [24, 26].”
- Blow-up analysis concerning singular Trudinger–Moser inequalities in dimension two (2016, background): “This result was extended by Y. Yang [28, 29] to the cases of high dimension and compact Riemannian surface, by Lu-Yang [19] and J. Zhu [38] to the version of Lp-norm, by de Souza and J. M. do Ó [11, 13] to the whole Euclidean space, and by Tintarev [25] to the following form sup u∈W1,2 0 (Ω), ‖u‖1,”