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11: 35.7 Gaussian Hypergeometric Function of Matrix Argument
§35.7 Gaussian Hypergeometric Function of Matrix Argument
§35.7(i) Definition
Jacobi Form
Let f : 𝛀 (a) be orthogonally invariant, so that f ( 𝐓 ) is a symmetric function of t 1 , , t m , the eigenvalues of the matrix argument 𝐓 𝛀 ; (b) be analytic in t 1 , , t m in a neighborhood of 𝐓 = 𝟎 ; (c) satisfy f ( 𝟎 ) = 1 . … These approximations are in terms of elementary functions. …
12: Bibliography L
  • M. Yu. Loenko (2001) Evaluating elementary functions with guaranteed precision. Programming and Computer Software 27 (2), pp. 101–110.
  • J. L. López (2001) Uniform asymptotic expansions of symmetric elliptic integrals. Constr. Approx. 17 (4), pp. 535–559.
  • J. L. López (2000) Asymptotic expansions of symmetric standard elliptic integrals. SIAM J. Math. Anal. 31 (4), pp. 754–775.
  • N. A. Lukaševič (1965) Elementary solutions of certain Painlevé equations. Differ. Uravn. 1 (3), pp. 731–735 (Russian).
  • W. Luther (1995) Highly accurate tables for elementary functions. BIT 35 (3), pp. 352–360.
  • 13: Bibliography I
  • J. Igusa (1972) Theta Functions. Springer-Verlag, New York.
  • Y. Ikebe, Y. Kikuchi, I. Fujishiro, N. Asai, K. Takanashi, and M. Harada (1993) The eigenvalue problem for infinite compact complex symmetric matrices with application to the numerical computation of complex zeros of J 0 ( z ) i J 1 ( z ) and of Bessel functions J m ( z ) of any real order m . Linear Algebra Appl. 194, pp. 35–70.
  • IMSL (commercial C, Fortran, and Java libraries) IMSL Nuerical Libraries..
  • E. L. Ince (1932) Tables of the elliptic cylinder functions. Proc. Roy. Soc. Edinburgh Sect. A 52, pp. 355–433.
  • E. L. Ince (1940a) The periodic Lamé functions. Proc. Roy. Soc. Edinburgh 60, pp. 47–63.
  • 14: Bibliography F
  • J. Faraut and A. Korányi (1994) Analysis on Symmetric Cones. Oxford Mathematical Monographs, The Clarendon Press, Oxford University Press, Oxford-New York.
  • FDLIBM (free C library)
  • J. L. Fields and J. Wimp (1961) Expansions of hypergeometric functions in hypergeometric functions. Math. Comp. 15 (76), pp. 390–395.
  • A. S. Fokas and M. J. Ablowitz (1982) On a unified approach to transformations and elementary solutions of Painlevé equations. J. Math. Phys. 23 (11), pp. 2033–2042.
  • T. Fukushima (2012) Series expansions of symmetric elliptic integrals. Math. Comp. 81 (278), pp. 957–990.
  • 15: 2.6 Distributional Methods
    The fact that expansion (2.6.6) misses all the terms in the second series in (2.6.7) raises the question: what went wrong with our process of reaching (2.6.6)? In the following subsections, we use some elementary facts of distribution theory (§1.16) to study the proper use of divergent integrals. … To each function in this equation, we shall assign a tempered distribution (i. …, a continuous linear functional) on the space 𝒯 of rapidly decreasing functions on . … An application has been given by López (2000) to derive asymptotic expansions of standard symmetric elliptic integrals, complete with error bounds; see §19.27(vi). … Also, …
    16: 18.38 Mathematical Applications
    Zhedanov Algebra
    A symmetric Laurent polynomial is a function of the form …Define operators K 0 and K 1 acting on symmetric Laurent polynomials by K 0 = L ( L given by (18.28.6_2)) and ( K 1 f ) ( z ) = ( z + z 1 ) f ( z ) . …and e 1 , e 2 , e 3 , e 4 are the elementary symmetric polynomials in a , b , c , d given by a + b + c + d , a b + a c + + c d , a b c + a b d + a c d + b c d , a b c d , respectively. … The Dunkl type operator is a q -difference-reflection operator acting on Laurent polynomials and its eigenfunctions, the nonsymmetric Askey–Wilson polynomials, are linear combinations of the symmetric Laurent polynomial R n ( z ; a , b , c , d | q ) and the ‘anti-symmetric’ Laurent polynomial z 1 ( 1 a z ) ( 1 b z ) R n 1 ( z ; q a , q b , c , d | q ) , where R n ( z ) is given in (18.28.1_5). …
    17: Bibliography M
  • I. G. Macdonald (1998) Symmetric Functions and Orthogonal Polynomials. University Lecture Series, Vol. 12, American Mathematical Society, Providence, RI.
  • T. M. MacRobert (1967) Spherical Harmonics. An Elementary Treatise on Harmonic Functions with Applications. 3rd edition, International Series of Monographs in Pure and Applied Mathematics, Vol. 98, Pergamon Press, Oxford.
  • S. M. Markov (1981) On the interval computation of elementary functions. C. R. Acad. Bulgare Sci. 34 (3), pp. 319–322.
  • X. Merrheim (1994) The computation of elementary functions in radix 2 p . Computing 53 (3-4), pp. 219–232.
  • J. Muller (1997) Elementary Functions: Algorithms and Implementation. Birkhäuser Boston Inc., Boston, MA.
  • 18: 3.1 Arithmetics and Error Measures
    Rounding
    Symmetric rounding or rounding to nearest of x gives x or x + , whichever is nearer to x , with maximum relative error equal to the machine precision 1 2 ϵ M = 2 p . … The elementary arithmetical operations on intervals are defined as follows: …
    3.1.10 ϵ 𝑟𝑝 = | ln ( x / x ) | ,
    19: 32.2 Differential Equations
    in which a ( z ) , b ( z ) , c ( z ) , d ( z ) , and ϕ ( z ) are locally analytic functions. The fifty equations can be reduced to linear equations, solved in terms of elliptic functions (Chapters 22 and 23), or reduced to one of P I P VI . For arbitrary values of the parameters α , β , γ , and δ , the general solutions of P I P VI  are transcendental, that is, they cannot be expressed in closed-form elementary functions. However, for special values of the parameters, equations P II P VI  have special solutions in terms of elementary functions, or special functions defined elsewhere in the DLMF. …
    §32.2(v) Symmetric Forms
    20: 18.39 Applications in the Physical Sciences
    defines the potential for a symmetric restoring force k x for displacements from x = 0 . … The corresponding eigenfunction transform is a generalization of the Kontorovich–Lebedev transform §10.43(v), see Faraut (1982, §IV). …
    §18.39(ii) A 3D Separable Quantum System, the Hydrogen Atom
    a) Spherical Radial Coulomb Wave Functions Expressed in terms of Laguerre OP’s
    c) Spherical Radial Coulomb Wave Functions