Quantitative uniqueness for Schrodinger operator with regular potentials
Laurent Bakri, Jean-Baptiste Casteras

TL;DR
This paper establishes a precise upper bound on how quickly solutions to the Schrödinger equation with regular potentials can vanish, using advanced Carleman inequalities on smooth manifolds.
Contribution
It extends existing methods to include magnetic potentials and provides sharp bounds on solution vanishing orders for Schrödinger operators with C^1 potentials.
Findings
Sharp upper bound on vanishing order of solutions
Extension of Carleman inequalities to magnetic potentials
Applicable to Schrödinger equations on smooth manifolds
Abstract
We give a sharp upper bound on the vanishing order of solutions to Schrodinger equation with C^1 electric and magnetic potentials on a compact smooth manifold. Our method is based on quantitative Carleman type inequalities developed by Donnelly and Fefferman. It also extends the first author's previous work to the magnetic potential case.
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Taxonomy
TopicsAdvanced Mathematical Modeling in Engineering · Numerical methods in inverse problems · Nonlinear Partial Differential Equations
