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      The coordinate-free approach to spherical harmonics

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          Abstract

          We present in a unified and self-contained manner the coordinate-free approach to spherical harmonics initiated in the mid 19th century by James Clerk Maxwell, William Thomson and Peter Guthrie Tait. We stress the pedagogical advantages of this approach which leads in a natural way to many physically relevant results that students find often difficult to work out using spherical coordinates and associated Legendre functions. It is shown how most physically relevant results of the theory of spherical harmonics - such as recursion relations, Legendre's addition theorem,surface harmonics expansions, the method of images, multipolar charge distributions, partial wave expansions, Hobson's integral theorem, rotation matrix and Gaunt's integrals - can be efficiently derived in a coordinate free fashion from a few basic elements of the theory of solid and surface harmonics discussed in the paper.

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          Author and article information

          Journal
          2008-06-20
          2010-01-27
          Article
          0806.3367
          63e81388-dac3-4131-9953-1dbfc95b8620

          http://arxiv.org/licenses/nonexclusive-distrib/1.0/

          History
          Custom metadata
          36 pages, 0 figures. Title changed. Illustrations on the method of images and multipolar charge distributions included in Section VI. Shortened version under revision in Am. J. Phys. Typos corrected
          math-ph math.MP

          Mathematical physics,Mathematical & Computational physics
          Mathematical physics, Mathematical & Computational physics

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