Determination of the permittivity and conductivity in R3 using wave splitting of Maxwell’s equations
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Publication:4836942
DOI10.1063/1.531085zbMath0827.35125OpenAlexW1967983364MaRDI QIDQ4836942
Publication date: 21 June 1995
Published in: Journal of Mathematical Physics (Search for Journal in Brave)
Full work available at URL: https://doi.org/10.1063/1.531085
PDEs in connection with optics and electromagnetic theory (35Q60) Inverse problems for PDEs (35R30) Electromagnetic theory (general) (78A25)
Related Items (4)
Inverse problem for the dissipative wave equation in a stratified half-space and linearization of the imbedding equations ⋮ Three-dimensional electromagnetic inverse scattering for biisotropic dispersive media ⋮ ``The source problem -- Transient waves propagating from internal sources in non-stationary media ⋮ Wave propagators for transient waves in one-dimensional media
Cites Work
- A Green's function approach to the determination of internal fields
- The electromagnetic inverse problem in the time domain for a dissipative slab and a point source using invariant imbedding: Reconstruction of the permittivity and conductivity
- Time domain Green functions technique for a point source over a dissipative stratified half-space with a phase velocity mismatch at the surface
- Direct and inverse scattering in the time domain via invariant imbedding equations
- Invariant imbedding for the wave equation in three dimensions and the applications to the direct and inverse problems
- Wave splitting and the reflection operator for the wave equation in R3
- Direct and inverse scattering in the time domain for a dissipative wave equation. I. Scattering operators
- Direct and inverse scattering in the time domain for a dissipative wave equation. II. Simultaneous reconstruction of dissipation and phase velocity profiles
- Factorization of the wave equation in higher dimensions
- Factorization of the wave equation in a nonplanar stratified medium
- Factorization of the dissipative wave equation and inverse scattering
- A Wave Splitting Approach to Time Dependent Inverse Scattering for the Stratified Cylinder
- Dyadic Green functions for the time-dependent wave equation
- Inverse problem for the dissipative wave equation in a stratified half-space and linearization of the imbedding equations
- A uniqueness theorem for second order hyperbolic differential equations
- Invariant imbedding and wave splitting in R 3 : II. The Green function approach to inverse scattering
- Time-domain wave splitting of Maxwell’s equations
- Wave splitting of the telegraph equation in R 3 and its application to inverse scattering
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