Anisotropic Calderón problem for a logarithmic Schrödinger operator of order $2+$ on closed Riemannian manifolds

Fuente: arXiv
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Autori principali: Das, Saumyajit, Ghosh, Tuhin, Pramanik, Susovan
Natura: Preprint
Pubblicazione: 2025
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author Das, Saumyajit
Ghosh, Tuhin
Pramanik, Susovan
author_facet Das, Saumyajit
Ghosh, Tuhin
Pramanik, Susovan
contents In this article, we study the anisotropic Calderón problems for the non local logarithimic Schrödinger operators $(-Δ_g+m)\log{(-Δ_g+m)}+V$ with $m>1$ on a closed, connected, smooth Riemannian manifold of dimension $n\geq2$. We will show that, for the operator $(-Δ_g+m)\log{(-Δ_g+m)}+V$, the recovery of both the Riemannian metric and the potential is possible from the Cauchy data, in the setting of a common underlying manifold with varying metrics. This result is unconditional. The last result can be extended to the case of setwise distinct manifolds also. In particular, we demonstrate that for setwise distinct manifolds, the Cauchy data associated with the operator $(-Δ_g+m)\log{(-Δ_g+m)}+V$, measured on a suitable non-empty open subset, uniquely determines the Riemannian manifold up to isometry and the potential up to an appropriate gauge transformation. This particular result is unconditional when the potential is supported entirely within the observation set. In the more general setting-where the potential may take nonzero values outside the observation set-specific geometric assumptions are required on both the observation set and the unknown region of the manifold.
format Preprint
id arxiv_https___arxiv_org_abs_2511_02409
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Anisotropic Calderón problem for a logarithmic Schrödinger operator of order $2+$ on closed Riemannian manifolds
Das, Saumyajit
Ghosh, Tuhin
Pramanik, Susovan
Analysis of PDEs
35S05, 58J35, 58J40
In this article, we study the anisotropic Calderón problems for the non local logarithimic Schrödinger operators $(-Δ_g+m)\log{(-Δ_g+m)}+V$ with $m>1$ on a closed, connected, smooth Riemannian manifold of dimension $n\geq2$. We will show that, for the operator $(-Δ_g+m)\log{(-Δ_g+m)}+V$, the recovery of both the Riemannian metric and the potential is possible from the Cauchy data, in the setting of a common underlying manifold with varying metrics. This result is unconditional. The last result can be extended to the case of setwise distinct manifolds also. In particular, we demonstrate that for setwise distinct manifolds, the Cauchy data associated with the operator $(-Δ_g+m)\log{(-Δ_g+m)}+V$, measured on a suitable non-empty open subset, uniquely determines the Riemannian manifold up to isometry and the potential up to an appropriate gauge transformation. This particular result is unconditional when the potential is supported entirely within the observation set. In the more general setting-where the potential may take nonzero values outside the observation set-specific geometric assumptions are required on both the observation set and the unknown region of the manifold.
title Anisotropic Calderón problem for a logarithmic Schrödinger operator of order $2+$ on closed Riemannian manifolds
topic Analysis of PDEs
35S05, 58J35, 58J40
url https://arxiv.org/abs/2511.02409