Stability of parabolic Harnack inequalities
By Martin T. Barlow, Richard F. Bass. 2003
123 citations recorded by the source corpus.
Subfields: Applied Mathematics, Geometry and Topology
View Paper: https://www.semanticscholar.org/paper/95cf91d5e48ba0d5cbb4d76a6d5564d8dee03be9
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In Applied Mathematics
- M. Kassmann
- Takashi Kumagai
- Martin T. Barlow
- Zhen-Qing Chen
- Richard F. Bass
- M. Folz
- Thierry Coulhoun
- Prasad Tetali
In Geometry and Topology
- Takashi Kumagai
- M. Folz
- Martin T. Barlow
- A. Sznitman
- Vladas Sidoravicius
- Thierry Coulhoun
- M. Kassmann
- Gady Kozma
Citations in the corpus
- Discrete Curvature and Abelian Groups (2015, background): “_e graph point of view led to generalizations that would have been less natural in Riemannian geometry, such as β-parabolic Harnack inequalities (see, e.g., [5]) and to some counterexamples [4, 13,22].”
- Besov class via heat semigroup on Dirichlet spaces II: BV functions and Gaussian heat kernel estimates (2018, background): “em3.7that fractional metric spaces for which dW >dH 1 must satisfy wBE() with = dW dH. Note that the hypothesis ofTheorem3.7is stable under rough isometries in the sense of Barlow-Bass-Kumagai [17,18,22] and is a part of the general theory of fractional diusions [10,12,13,15,16,19,20,38,50,51, a”
- Quenched invariance principles for walks on clusters of percolation or among random conductances (2004, background): “With the help of known Gaussian bounds on the transition kernel of the walk, cf. Delmotte [10], Grigoryan-Telcs [12], Barlow-Bass [ 4 ], the main task is to show that for any M> 0,”
- Characterization of sub‐Gaussian heat kernel estimates on strongly recurrent graphs (2005, methodology): “In [11], a characterization of C HK C β D;D was given in terms of a β -Poincaré inequality C PI C β D;D (see Section 1.”
- Parabolic Harnack inequality and heat kernel estimates for random walks with long range jumps (2007, background): “BB ]. The case BB ] this is called the ‘cable system’ of G.) We write d for the metric on H. Extend g to a function h on H ◊H by linearity on each cable; then the conditions (5.9) and (5.10) imply that (5.11) also holds for h. So it is now enough to prove the Lemma for h.”
- Volume growth and stochastic completeness of graphs (2012, methodology): “Varopoulos’ paper [31] establishes estimates for discrete time simple random walks using Brownian motion on metric graphs, and the paper of Barlow and Bass ([3]) uses Brownian motion on metric graphs to study a continuous time simple random walk.”
- Harnack Inequalities: An Introduction (2007, background): “A parabolic Harnack inequality with a non-diffusive spacetime scaling is proved on infinite connected weighted graphs [117].”
- Random walks on supercritical percolation clusters (2003, background): “See, for example, [BB3] for further details of this construction.”
- Stability of parabolic Harnack inequalities on metric measure spaces (2006, background): “The following covering lemma holds; cf. [ BB5 ].”