Green Function Estimates and Harnack Inequality for Subordinate Brownian Motions
By M. Rao, Renming Song, Zoran Vondraček. 2006
73 citations recorded by the source corpus.
View Paper: https://www.semanticscholar.org/paper/ca8e7b6b7dd45d76d89472c89aed2ec258fb596f
How researchers see this paper
The researchers whose trusted networks rank it highest, strongest advocate first. Every researcher gets a different order.
- Krzysztof Bogdan
- Ante Mimica
- Paweł Sztonyk
- Kaneharu Tsuchida
- M. Takeda
- Zhen-Qing Chen
- T. Grzywny
- Tomasz Jakubowski
Citations in the corpus
- Heat kernel estimates for the fractional Laplacian with Dirichlet conditions (2009, unknown): “Regarding other recent estimates [20, 17, 36, 23, 3] for the transition density and potential kernel of jump-type processes, we need to point out that generally these only concern processes without killing.”
- Differentiability of spectral functions for symmetric $\alpha$-stable processes (2007, background): “Recently, Rao, Song and Vondraček [32] obtained asymptotic behaviors of Green functions of Lévy processes including relativistic α-stable processes.”
- Potential Theory of Subordinate Brownian Motion (2009, background): “The materials covered in these lecture notes are based on several recent papers, primarily [47], [52], [59] and [57].”
- Harnack inequalities for subordinate Brownian motions (2012, background): “2 in [15], (2.”
- Estimates of the potential kernel and Harnack's inequality for the anisotropic fractional Laplacian (2005, methodology): “That (2) implies (1) is proved by using a maximum principle for a Dynkin-type version of the operator A to explicitly estimate its Green function G(x, v) for the unit ball, see Proposition 1 below.”
- Boundary Harnack principle for subordinate Brownian motions (2007, background): “3 of [21] we know that the potential measure U of S defined by U (A) := E ∫ ∞”
- Potential theory of subordinate Brownian motions revisited (2011, background): “A lot of progress has been made in recent years in the study of the potential theory of subordinate Brownian motions, see, for instance [13, 14, 25, 26, 27, 31, 35] and [6, Chapter 5].”