Cutoff Sobolev inequalities for local and non-local $p$-energies on metric measure spaces
Meng Yang

TL;DR
This paper extends the classical subordination principle to non-linear $p$-energies on metric measure spaces, showing how local and non-local regular energies relate through cutoff Sobolev inequalities under geometric conditions.
Contribution
It introduces a non-linear subordination principle connecting local and non-local $p$-energies via cutoff Sobolev inequalities, broadening the Dirichlet form framework.
Findings
Stable-like non-local $p$-energies inherit regularity from local energies.
Non-local cutoff Sobolev inequalities imply regularity for energies with smaller scaling functions.
Results apply under suitable geometric assumptions on metric measure spaces.
Abstract
For , we study subordination phenomena for local and non-local regular -energies on metric measure spaces. Under suitable geometric assumptions, we show that if a local regular -energy satisfies a Poincar\'e inequality together with a cutoff Sobolev inequality with scaling function , then all associated stable-like non-local -energies with scaling functions strictly below are regular and satisfy the corresponding non-local cutoff Sobolev inequalities. Moreover, if a stable-like non-local regular -energy with scaling function satisfies the corresponding non-local cutoff Sobolev inequality, then the same conclusion holds for all associated stable-like non-local -energies with scaling functions below . These results provide a non-linear extension of the classical subordination principle beyond the Dirichlet form framework.
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Taxonomy
TopicsAnalytic and geometric function theory · Nonlinear Partial Differential Equations · Geometric Analysis and Curvature Flows
