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Basics of Plane Wave Scattering

  • Tom RotherEmail author
Chapter
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Abstract

This chapter is concerned with the basic mathematical and physical aspects of solving the scattering problem of a plane sound wave on spherical objects. Important properties of the eigenfunctions of the scalar Helmholtz equation in spherical coordinates are discussed. These eigenfunctions are used as expansion functions for all the fields that are involved in solving the scattering problem. Especially their transformation behavior with respect to a rotation and a translation of the laboratory frame is considered in detail. Explicit expressions are given for the computation of the total and differential scattering cross-sections, and the so-called “optical theorem” for the computation of the former quantity is introduced. A section is moreover included that provides some hints of how to estimate the accuracy and physical reliability of an obtained scattering solution. A short outlook on the usage of Debye potentials for solving the corresponding electromagnetic scattering problem is given, and the Python programs, which are related to the subjects of this chapter, are described. Appendix  A provides a complete listing of these programs.

Supplementary material

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Supplementary material 1 (zip 15 KB)

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Copyright information

© Springer Nature Switzerland AG 2020

Authors and Affiliations

  1. 1.German Aerospace CenterNeustrelitzGermany

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