Inequalities and separation for covariant Schrödinger operators

Abstract

We consider a differential expression $L_V^{\nabla }={\nabla }^{†}\nabla +V$, where $\nabla$ is a metric covariant derivative on a Hermitian bundle $E$ over a geodesically complete Riemannian manifold $(M,g)$ with metric $g$, and $V$ is a linear self-adjoint bundle map on $E$. In the language of Everitt and Giertz, the differential expression $L_V^{\nabla }$ is said to be separated in $L^p(E)$ if for all $u\in L^p(E)$ such that $L_V^{\nabla }u\in L^p(E)$, we have $Vu\in L^p(E)$. We give sufficient conditions for $L_V^{\nabla }$ to be separated in $L^2(E)$. We then study the problem of separation of $L_V^{\nabla }$ in the more general $L^p$-spaces, and give sufficient conditions for $L_V^{\nabla }$ to be separated in $L^p(E)$, when $1<p<\infty$.

References in corpus (6)

• Essential self-adjointness of Schroedinger type operators on manifolds
• Laplacian cut-offs, porous and fast diffusion on manifolds and other applications
• Quantum confinement on non-complete Riemannian manifolds
• Essential self-adjointness of powers of first-order differential operators on non-compact manifolds with low-regularity metrics
• $L^p$-interpolation inequalities and global Sobolev regularity results (with an appendix by Ognjen Milatovic)
• The BMS conjecture

Cited by in corpus (1)

• Generalized Ornstein--Uhlenbeck Semigroups in weighted $L^p$-spaces on Riemannian Manifolds