Chapter 12: Q8P (page 590)
To show that .
Short Answer
Hence,
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Chapter 12: Q8P (page 590)
To show that .
Hence,
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Solve to get . If needed, see Chapter , Section 2. The given equation
The equation for the associated Legendre functions (and for Legendre functions when m=0) usually arises in the form (see, for example, Chapter 13, Section 7) 1/sinθ d/dθ (sinθ dy/dθ)+[l (l+1)-m2/sin2θ] y=0.
Make the change of variable x=cosθ, and obtain (10.1):
(1-x2) y"-2xy'+[l (l+1) -m2/1-x2] y=0
To show the first few terms of . Show that.
Solve the differential equations in Problems 5 to 10 by the Frobenius method; observe that you get only one solution. (Note, also, that the two values of are equal or differ by an integer, and in the latter case the larger gives the one solution.) Show that the conditions of Fuchs's theorem are satisfied. Knowing that the second solution is x times the so
Find the best (in the least squares sense) second-degree polynomial approximation to each of the given functions over the interval -1<x<1.
|x|
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