Introducing a general method for solving electromagnetic radiation problem in an arbitrary linear medium
arXiv:2308.08557 · doi:10.1103/PhysRevA.108.032211
Abstract
Numerical transfer matrices have been widely used in the study of wave propagation and scattering. These may be viewed as descretizations of a recently introduced fundamental notion of transfer matrix which admits a representation in terms of the evolution operator for an effective non-unitary quantum system. We use the fundamental transfer matrix to develop a general method for the solution of the problem of radiation of an oscillating source in an arbitrary, possibly non-homogenous, anisotropic, and active or lossy linear medium. This allows us to obtain an analytic solution of this problem for an oscillating source located in the vicinity of a planar collection of possibly anisotropic and active/lossy point scatterers such as those modeling a two-dimensional photonic crystal.
arXiv comment26 pages, 2 figures, accepted for publication in Phys. Rev. A
References in corpus (16)
- Spectral Singularities of Complex Scattering Potentials and Infinite Reflection and Transmission Coefficients at real Energies
- Spectral singularities and Bragg scattering in complex crystals
- Optical Spectral Singularities as Threshold Resonances
- Perturbative Renormalization in Quantum Mechanics
- Fundamental transfer matrix and dynamical formulation of stationary scattering in two and three dimensions
- One-dimensional anyons with competing -function and derivative -function potentials
- Infinite chain of N different deltas: a simple model for a Quantum Wire
- Perfect Broadband Invisibility in Isotropic Media with Gain and Loss
- Lattice Discretization in Quantum Scattering
- Fundamental transfer matrix for electromagnetic waves, scattering by a planar collection of point scatterers, and anti-PT-symmetry
- Nonlinear Spectral Singularities and Laser Output Intensity
- Quasi-Exactly Solvable Scattering Problems, Exactness of the Born Approximation, and Broadband Unidirectional Invisibility in Two Dimensions
- Transfer-matrix formulation of the scattering of electromagnetic waves and broadband invisibility in three dimensions
- Geometric scattering of a scalar particle moving on a curved surface in the presence of point defects
- Spectral singularities and tunable slab lasers with 2D material coating
- A Class of Exactly Solvable Scattering Potentials in Two Dimensions, Entangled State Pair Generation, and a Grazing Angle Resonance Effect