Lamé functions, also called ellipsoidal harmonic functions, are the solutions to Lamé's equation, a second-order ordinary differential equation named after the French mathematician Gabriel Lamé, who introduced them in 1837. The equation takes the form of a standard second-derivative term plus a term built from the Weierstrass elliptic function, and in certain special cases its solutions can be written as polynomials known as Lamé polynomials. Lamé functions arise naturally when the method of separation of variables is applied to the Laplace equation in elliptic coordinates, making them a tool of applied mathematics and mathematical physics. They also appear in quantum mechanics, describing small fluctuations around classical solutions of the Schrödinger equation for periodic and anharmonic potentials, and their deeper study draws on Floquet theory and on connections to hyperelliptic curves in what is called the finite-gap case.
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1. Lamé Function (Wikipedia)
Lead section
In mathematics, a Lamé function, or ellipsoidal harmonic function, is a solution of Lamé's equation, a second-order ordinary differential equation.
Attributed To: Gabriel Lamé, Lead sentence
It was introduced in the paper (Gabriel Lamé 1837).
In Branch: Differential Equations, Lead paragraph
In mathematics, a Lamé function, or ellipsoidal harmonic function, is a solution of Lamé's equation, a second-order ordinary differential equation.
View the SourceGabriel Lamé (Wikipedia)
Principal Result Of: Gabriel Lamé, BiographyQuote, Principal Result Of: Gabriel Lamé, Biography
The Lamé functions are part of the theory of ellipsoidal harmonics.
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