Covariant tomography of fields

Fuente: arXiv
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Autor principal: Kycia, Radosław Antoni
Formato: Preprint
Publicado: 2026
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author Kycia, Radosław Antoni
author_facet Kycia, Radosław Antoni
contents This paper develops 'covariant tomography', a local framework for solving Inverse Boundary Value Problems (IBVP) for parallel transport equation on star-shaped domains. By integrating geometric decomposition with specific interior extensions - radial, heat equation, or harmonic - the method reconstructs currents and gauge potentials from boundary data. The choice of extension directly dictates the regularity of the recovered interior fields. A primary contribution is the 'tower' algorithm, which reduces higher-order systems, such as Maxwell equations, to a sequence of coupled first-order equations. We establish a formal solvability criterion (Theorem \ref{Th_TowerTheorem}), proving that higher-order IBVPs are solvable if and only if this tower is sequentially solvable. The framework is validated through low-dimensional examples and electromagnetic potential reconstruction in $\mathbb{R}^{3}$.
format Preprint
id arxiv_https___arxiv_org_abs_2601_13261
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle Covariant tomography of fields
Kycia, Radosław Antoni
Mathematical Physics
Analysis of PDEs
Differential Geometry
58A10, 53Z05, 51P05, 35R30, 70S15
This paper develops 'covariant tomography', a local framework for solving Inverse Boundary Value Problems (IBVP) for parallel transport equation on star-shaped domains. By integrating geometric decomposition with specific interior extensions - radial, heat equation, or harmonic - the method reconstructs currents and gauge potentials from boundary data. The choice of extension directly dictates the regularity of the recovered interior fields. A primary contribution is the 'tower' algorithm, which reduces higher-order systems, such as Maxwell equations, to a sequence of coupled first-order equations. We establish a formal solvability criterion (Theorem \ref{Th_TowerTheorem}), proving that higher-order IBVPs are solvable if and only if this tower is sequentially solvable. The framework is validated through low-dimensional examples and electromagnetic potential reconstruction in $\mathbb{R}^{3}$.
title Covariant tomography of fields
topic Mathematical Physics
Analysis of PDEs
Differential Geometry
58A10, 53Z05, 51P05, 35R30, 70S15
url https://arxiv.org/abs/2601.13261