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21: Bibliography T
  • N. M. Temme (1985) Laplace type integrals: Transformation to standard form and uniform asymptotic expansions. Quart. Appl. Math. 43 (1), pp. 103–123.
  • N. M. Temme (1990b) Uniform asymptotic expansions of a class of integrals in terms of modified Bessel functions, with application to confluent hypergeometric functions. SIAM J. Math. Anal. 21 (1), pp. 241–261.
  • N. M. Temme (2022) Asymptotic expansions of Kummer hypergeometric functions for large values of the parameters. Integral Transforms Spec. Funct. 33 (1), pp. 16–31.
  • I. Thompson (2012) A note on the real zeros of the incomplete gamma function. Integral Transforms Spec. Funct. 23 (6), pp. 445–453.
  • A. A. Tuẑilin (1971) Theory of the Fresnel integral. USSR Comput. Math. and Math. Phys. 9 (4), pp. 271–279.
  • 22: 2.8 Differential Equations with a Parameter
    An alternative way of representing the error terms in (2.8.15) and (2.8.16) is as follows. …
    §2.8(iv) Case III: Simple Pole
    Again, an alternative way of representing the error terms in (2.8.29) and (2.8.30) is by means of envelope functions. … For further examples of uniform asymptotic approximations in terms of parabolic cylinder functions see §§13.20(iii), 13.20(iv), 14.15(v), 15.12(iii), 18.24. … For examples of uniform asymptotic approximations in terms of Whittaker functions with fixed second parameter see §18.15(i) and §28.8(iv). …
    23: 22.20 Methods of Computation
    A powerful way of computing the twelve Jacobian elliptic functions for real or complex values of both the argument z and the modulus k is to use the definitions in terms of theta functions given in §22.2, obtaining the theta functions via methods described in §20.14. …
    §22.20(iii) Landen Transformations
    By application of the transformations given in §§22.7(i) and 22.7(ii), k or k can always be made sufficently small to enable the approximations given in §22.10(ii) to be applied. … From the first two terms in (22.10.6) we find dn ( 0.19 , 1 19 ) = 0.999951 . … Jacobi’s epsilon function can be computed from its representation (22.16.30) in terms of theta functions and complete elliptic integrals; compare §20.14. …
    24: Guide to Searching the DLMF
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  • 25: Bibliography C
  • L. G. Cabral-Rosetti and M. A. Sanchis-Lozano (2000) Generalized hypergeometric functions and the evaluation of scalar one-loop integrals in Feynman diagrams. J. Comput. Appl. Math. 115 (1-2), pp. 93–99.
  • B. C. Carlson (1990) Landen Transformations of Integrals. In Asymptotic and Computational Analysis (Winnipeg, MB, 1989), R. Wong (Ed.), Lecture Notes in Pure and Appl. Math., Vol. 124, pp. 75–94.
  • T. M. Cherry (1948) Expansions in terms of parabolic cylinder functions. Proc. Edinburgh Math. Soc. (2) 8, pp. 50–65.
  • H. S. Cohl (2013b) On a generalization of the generating function for Gegenbauer polynomials. Integral Transforms Spec. Funct. 24 (10), pp. 807–816.
  • J. N. L. Connor (1973) Evaluation of multidimensional canonical integrals in semiclassical collision theory. Molecular Phys. 26 (6), pp. 1371–1377.
  • 26: 15.19 Methods of Computation
    For z it is always possible to apply one of the linear transformations in §15.8(i) in such a way that the hypergeometric function is expressed in terms of hypergeometric functions with an argument in the interval [ 0 , 1 2 ] . For z it is possible to use the linear transformations in such a way that the new arguments lie within the unit circle, except when z = e ± π i / 3 . …
    §15.19(iii) Integral Representations
    When z > 1 2 it is better to begin with one of the linear transformations (15.8.4), (15.8.7), or (15.8.8). … …
    27: Bibliography M
  • O. I. Marichev (1983) Handbook of Integral Transforms of Higher Transcendental Functions: Theory and Algorithmic Tables. Ellis Horwood Ltd./John Wiley & Sons, Inc, Chichester/New York.
  • J. C. Mason (1993) Chebyshev polynomials of the second, third and fourth kinds in approximation, indefinite integration, and integral transforms. In Proceedings of the Seventh Spanish Symposium on Orthogonal Polynomials and Applications (VII SPOA) (Granada, 1991), Vol. 49, pp. 169–178.
  • J. P. McClure and R. Wong (1978) Explicit error terms for asymptotic expansions of Stieltjes transforms. J. Inst. Math. Appl. 22 (2), pp. 129–145.
  • S. C. Milne (1994) A q -analog of a Whipple’s transformation for hypergeometric series in U ( n ) . Adv. Math. 108 (1), pp. 1–76.
  • H. J. W. Müller (1966b) Asymptotic expansions of ellipsoidal wave functions in terms of Hermite functions. Math. Nachr. 32, pp. 49–62.
  • 28: 3.5 Quadrature
    In particular, when k = the error term is an exponentially-small function of 1 / h , and in these circumstances the composite trapezoidal rule is exceptionally efficient. … Oscillatory integral transforms are treated in Wong (1982) by a method based on Gaussian quadrature. … In fact from (7.14.4) and the inversion formula for the Laplace transform1.14(iii)) we have … Other contour integrals occur in standard integral transforms or their inverses, for example, Hankel transforms10.22(v)), Kontorovich–Lebedev transforms10.43(v)), and Mellin transforms1.14(iv)). …
    29: 31.10 Integral Equations and Representations
    The solutions of (31.10.8) are given in terms of the Riemann P -symbol (see §15.11(i)) as … For suitable choices of the branches of the P -symbols in (31.10.9) and the contour C , we can obtain both integral equations satisfied by Heun functions, as well as the integral representations of a distinct solution of Heun’s equation in terms of a Heun function (polynomial, path-multiplicative solution). … This equation can be solved in terms of cylinder functions 𝒞 ν ( z ) 10.2(ii)): …
    Transformation of Independent Variable
    This equation can be solved in terms of hypergeometric functions (§15.11(i)): …
    30: 7.7 Integral Representations
    §7.7 Integral Representations
    §7.7(i) Error Functions and Dawson’s Integral
    Integrals of the type e z 2 R ( z ) d z , where R ( z ) is an arbitrary rational function, can be written in closed form in terms of the error functions and elementary functions. …
    §7.7(ii) Auxiliary Functions
    Mellin–Barnes Integrals