2022
DOI: 10.3934/ipi.2022006
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Inverse boundary value problems for polyharmonic operators with non-smooth coefficients

Abstract: <p style='text-indent:20px;'>We consider inverse boundary value problems for polyharmonic operators and in particular, the problem of recovering the coefficients of terms up to order one. The main interest of our result is that it further relaxes the regularity required to establish uniqueness. The proof relies on an averaging technique introduced by Haberman and Tataru for the study of an inverse boundary value problem for a second order operator.</p>

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Cited by 4 publications
(3 citation statements)
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“…If we extend our consideration to include first order perturbations, it was proved in [23] that the set of Cauchy data determines sufficiently smooth first order perturbation of the polyharmonic operator uniquely. There are extensive subsequent efforts to recover the first order perturbation of the polyharmonic operator with lower regularity, see for instance [4,5,10,24] and the references therein. We remark that relaxing the regularity of coefficients is crucial in inverse problems, since it enables the imaging of rough medium.…”
Section: Introduction and Statement Of Resultsmentioning
confidence: 99%
“…If we extend our consideration to include first order perturbations, it was proved in [23] that the set of Cauchy data determines sufficiently smooth first order perturbation of the polyharmonic operator uniquely. There are extensive subsequent efforts to recover the first order perturbation of the polyharmonic operator with lower regularity, see for instance [4,5,10,24] and the references therein. We remark that relaxing the regularity of coefficients is crucial in inverse problems, since it enables the imaging of rough medium.…”
Section: Introduction and Statement Of Resultsmentioning
confidence: 99%
“…If we extend our consideration to include first order perturbations, it was proved in [26] that the Dirichlet-to-Neumann map determines sufficiently smooth first order perturbation of the polyharmonic operator uniquely. There are extensive subsequent efforts to recover the first order perturbation of the polyharmonic operator with lower regularity, see for instance [5,6,11,27] and the references therein. We remark that relaxing the regularity of coefficients is crucial in inverse problems, since it enables the imaging of rough medium.…”
Section: Previous Literaturementioning
confidence: 99%
“…While the work [28] considers the case of bounded potentials, certain classes of unbounded potentials are dealt with in the work [27], see also [35]. We refer to [33], [32] where the inverse boundary problem of determination of a first-order perturbation of the biharmonic operator was studied in the Euclidean case, see also [11], [1], [2], [4] for the case of non-smooth perturbations, and [9], [23] for the case of second order perturbations.…”
mentioning
confidence: 99%