Multiple Scattering of Electromagnetic Waves by Random Scatterers of Finite Size
- 1 November 1964
- journal article
- Published by AIP Publishing in Journal of Mathematical Physics
- Vol. 5 (11) , 1619-1628
- https://doi.org/10.1063/1.1931199
Abstract
The problem of multiple scattering of waves by randomly positioned objects has been treated by several authors, for example, Foldy, Lax, Twersky, Waterman, and Truell. The present work extends the theory to electromagnetic vector fields and to scatterers of arbitrary size and properties. A general formulation has been made for scattering by any type of discrete and identical scatterers which are similarly oriented. The case of spherical scatterers has been treated by using the rigorous Mie theory both for sparse and dense concentration. Results indicate that in case of sparse concentration, the statistical expectation of the total field has a polarization similar to that of the normally incident wave and the distribution of scatterers is equivalent to a homogeneous medium with a modified refractive index. In case of dense concentration the medium can sustain a number of plane-wave modes. A dispersion relation for the modified medium has been obtained. When the special cases of small spheres is considered, the well-known results obtained by other authors are recovered.Keywords
This publication has 7 references indexed in Scilit:
- On Scattering of Waves by Random Distributions. I. Free-Space Scatterer FormalismJournal of Mathematical Physics, 1962
- Multiple Scattering of WavesJournal of Mathematical Physics, 1961
- WAVES IN A LATTICE OF SPHERICAL SCATTERERSProceedings of the National Academy of Sciences, 1956
- Multiple Scattering of Waves. II. The Effective Field in Dense SystemsPhysical Review B, 1952
- Multiple Scattering of WavesReviews of Modern Physics, 1951
- The Multiple Scattering of Waves. I. General Theory of Isotropic Scattering by Randomly Distributed ScatterersPhysical Review B, 1945
- A generalization of Maxwell's definition of solid harmonics to waves in n dimensionsPhysica, 1936