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21: 23.4 Graphics
β–Ί
β–ΊSee accompanying textβ–Ί
Figure 23.4.1: ⁑ ( x ; g 2 ⁑ , 0 ) for 0 x 9 , g 2 ⁑ = 0. …8. … Magnify
β–Ί
β–ΊSee accompanying textβ–Ί
Figure 23.4.2: ⁑ ( x ; 0 , g 3 ⁑ ) for 0 x 9 , g 3 ⁑ = 0. … Magnify
β–Ί
β–ΊSee accompanying textβ–Ί
Figure 23.4.7: ⁑ ( x ) with Ο‰ 1 = K ⁑ ( k ) , Ο‰ 3 = i ⁒ K ⁑ ( k ) for 0 x 9 , k 2 = 0. …95, 0. … Magnify
22: 34.12 Physical Applications
§34.12 Physical Applications
β–ΊThe angular momentum coupling coefficients ( 3 ⁒ j , 6 ⁒ j , and 9 ⁒ j symbols) are essential in the fields of nuclear, atomic, and molecular physics. … 3 ⁒ j , 6 ⁒ j , and 9 ⁒ j symbols are also found in multipole expansions of solutions of the Laplace and Helmholtz equations; see Carlson and Rushbrooke (1950) and Judd (1976).
23: 23.20 Mathematical Applications
β–ΊAn algebraic curve that can be put either into the form … β–ΊIt follows from the addition formula (23.10.1) that the points P j = P ⁑ ( z j ) , j = 1 , 2 , 3 , have zero sum iff z 1 + z 2 + z 3 𝕃 , so that addition of points on the curve C corresponds to addition of parameters z j on the torus β„‚ / 𝕃 ; see McKean and Moll (1999, §§2.11, 2.14). … β–ΊThe addition law states that to find the sum of two points, take the third intersection with C of the chord joining them (or the tangent if they coincide); then its reflection in the x -axis gives the required sum. … β–ΊBoth T , K are subgroups of C , though I may not be. …The order of a point (if finite and not already determined) can have only the values 3, 5, 6, 7, 9, 10, or 12, and so can be found from 2 ⁒ P = P , 4 ⁒ P = P , 4 ⁒ P = 2 ⁒ P , 8 ⁒ P = P , 8 ⁒ P = P , 8 ⁒ P = 2 ⁒ P , or 8 ⁒ P = 4 ⁒ P . …
24: 23.9 Laurent and Other Power Series
β–Ί
23.9.1 c n = ( 2 ⁒ n 1 ) ⁒ w 𝕃 βˆ– { 0 } w 2 ⁒ n , n = 2 , 3 , 4 , .
β–Ί
23.9.2 ⁑ ( z ) = 1 z 2 + n = 2 c n ⁒ z 2 ⁒ n 2 , 0 < | z | < | z 0 | ,
β–ΊExplicit coefficients c n in terms of c 2 and c 3 are given up to c 19 in Abramowitz and Stegun (1964, p. 636). β–ΊFor j = 1 , 2 , 3 , and with e j ⁑ as in §23.3(i), … β–ΊFor a m , n with m = 0 , 1 , , 12 and n = 0 , 1 , , 8 , see Abramowitz and Stegun (1964, p. 637).
25: 23.7 Quarter Periods
β–Ί
23.7.1 ⁑ ( 1 2 ⁒ Ο‰ 1 ) = e 1 ⁑ + ( e 1 ⁑ e 3 ⁑ ) ⁒ ( e 1 ⁑ e 2 ⁑ ) = e 1 ⁑ + Ο‰ 1 2 ⁒ ( K ⁑ ( k ) ) 2 ⁒ k ,
β–Ί
23.7.2 ⁑ ( 1 2 ⁒ Ο‰ 2 ) = e 2 ⁑ i ⁒ ( e 1 ⁑ e 2 ⁑ ) ⁒ ( e 2 ⁑ e 3 ⁑ ) = e 2 ⁑ i ⁒ Ο‰ 1 2 ⁒ ( K ⁑ ( k ) ) 2 ⁒ k ⁒ k ,
β–Ί
23.7.3 ⁑ ( 1 2 ⁒ Ο‰ 3 ) = e 3 ⁑ ( e 1 ⁑ e 3 ⁑ ) ⁒ ( e 2 ⁑ e 3 ⁑ ) = e 3 ⁑ Ο‰ 1 2 ⁒ ( K ⁑ ( k ) ) 2 ⁒ k ,
26: Bibliography L
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  • S. Lai and Y. Chiu (1992) Exact computation of the 9 - j symbols. Comput. Phys. Comm. 70 (3), pp. 544–556.
  • β–Ί
  • E. M. Lifshitz and L. P. PitaevskiΔ­ (1980) Statistical Physics, Part 2: Theory of the Condensed State. Pergamon Press, Oxford.
  • β–Ί
  • J. L. López, P. Pagola, and E. Pérez Sinusía (2013b) Asymptotics of the first Appell function F 1 with large parameters. Integral Transforms Spec. Funct. 24 (9), pp. 715–733.
  • β–Ί
  • L. Lorch and P. SzegΕ‘ (1964) Monotonicity of the differences of zeros of Bessel functions as a function of order. Proc. Amer. Math. Soc. 15 (1), pp. 9196.
  • β–Ί
  • Lord Kelvin (1905) Deep water ship-waves. Phil. Mag. 9, pp. 733–757.
  • 27: Bibliography S
    β–Ί
  • H. E. Salzer (1955) Orthogonal polynomials arising in the numerical evaluation of inverse Laplace transforms. Math. Tables Aids Comput. 9 (52), pp. 164–177.
  • β–Ί
  • J. Segura and A. Gil (1999) Evaluation of associated Legendre functions off the cut and parabolic cylinder functions. Electron. Trans. Numer. Anal. 9, pp. 137–146.
  • β–Ί
  • G. Shanmugam (1978) Parabolic Cylinder Functions and their Application in Symmetric Two-centre Shell Model. In Proceedings of the Conference on Mathematical Analysis and its Applications (Inst. Engrs., Mysore, 1977), Matscience Rep., Vol. 91, Aarhus, pp. P81–P89.
  • β–Ί
  • K. Srinivasa Rao, V. Rajeswari, and C. B. Chiu (1989) A new Fortran program for the 9 - j angular momentum coefficient. Comput. Phys. Comm. 56 (2), pp. 231–248.
  • β–Ί
  • S. K. Suslov (2003) An Introduction to Basic Fourier Series. Developments in Mathematics, Vol. 9, Kluwer Academic Publishers, Dordrecht.
  • 28: 23.3 Differential Equations
    β–Ίand are denoted by e 1 ⁑ , e 2 ⁑ , e 3 ⁑ . … β–ΊLet g 2 3 ⁑ 27 ⁒ g 3 2 ⁑ , or equivalently Ξ” be nonzero, or e 1 ⁑ , e 2 ⁑ , e 3 ⁑ be distinct. Given g 2 ⁑ and g 3 ⁑ there is a unique lattice 𝕃 such that (23.3.1) and (23.3.2) are satisfied. … β–ΊConversely, g 2 ⁑ , g 3 ⁑ , and the set { e 1 ⁑ , e 2 ⁑ , e 3 ⁑ } are determined uniquely by the lattice 𝕃 independently of the choice of generators. However, given any pair of generators 2 ⁒ Ο‰ 1 , 2 ⁒ Ο‰ 3 of 𝕃 , and with Ο‰ 2 defined by (23.2.1), we can identify the e j ⁑ individually, via …
    29: Bibliography M
    β–Ί
  • I. G. Macdonald (1972) Affine root systems and Dedekind’s Ξ· -function. Invent. Math. 15 (2), pp. 91–143.
  • β–Ί
  • J. McMahon (1894) On the roots of the Bessel and certain related functions. Ann. of Math. 9 (1-6), pp. 23–30.
  • β–Ί
  • J. Meixner (1934) Orthogonale Polynomsysteme mit einer besonderen Gestalt der erzeugenden Funktion. J. Lond. Math. Soc. 9, pp. 6–13 (German).
  • β–Ί
  • S. C. Milne and G. M. Lilly (1992) The A l and C l Bailey transform and lemma. Bull. Amer. Math. Soc. (N.S.) 26 (2), pp. 258–263.
  • β–Ί
  • T. Morita (2013) A connection formula for the q -confluent hypergeometric function. SIGMA Symmetry Integrability Geom. Methods Appl. 9, pp. Paper 050, 13.
  • 30: Bibliography C
    β–Ί
  • R. G. Campos (1995) A quadrature formula for the Hankel transform. Numer. Algorithms 9 (2), pp. 343–354.
  • β–Ί
  • B. C. Carlson (1978) Short proofs of three theorems on elliptic integrals. SIAM J. Math. Anal. 9 (3), pp. 524–528.
  • β–Ί
  • T. S. Chihara and M. E. H. Ismail (1993) Extremal measures for a system of orthogonal polynomials. Constr. Approx. 9, pp. 111–119.
  • β–Ί
  • J. S. Christiansen and M. E. H. Ismail (2006) A moment problem and a family of integral evaluations. Trans. Amer. Math. Soc. 358 (9), pp. 4071–4097.
  • β–Ί
  • Th. Clausen (1828) Über die Fälle, wenn die Reihe von der Form y = 1 + Ξ± 1 Ξ² Ξ³ ⁒ x + Ξ± Ξ± + 1 1 2 Ξ² Ξ² + 1 Ξ³ Ξ³ + 1 ⁒ x 2 + etc. ein Quadrat von der Form z = 1 + Ξ± 1 Ξ² Ξ³ Ξ΄ Ο΅ ⁒ x + Ξ± Ξ± + 1 1 2 Ξ² Ξ² + 1 Ξ³ Ξ³ + 1 Ξ΄ Ξ΄ + 1 Ο΅ Ο΅ + 1 ⁒ x 2 + etc. hat. J. Reine Angew. Math. 3, pp. 89–91.