NIST digital library of mathematical functions. The National Institute of Standards and Technology is preparing a Digital Library of Mathematical Functions (DLMF) to provide useful data about special functions for a wide audience. The initial products will be a published handbook and companion Web site, both scheduled for completion in 2003. More than 50 mathematicians, physicists and computer scientists from around the world are participating in the work. The data to be covered include mathematical formulas, graphs, references, methods of computation, and links to software. Special features of the Web site include 3D interactive graphics and an equation search capability. The information technology tools that are being used are, of necessity, ones that are widely available now, even though better tools are in active development. For example, LaTeX files are being used as the common source for both the handbook and the Web site. This is the technology of choice for presentation of mathematics in print but it is not well suited to equation search, for example, or for input to computer algebra systems. These and other problems, and some partially successful work-arounds, are discussed in this paper and in the companion paper by {it B. R. Miller} and {it A. Youssef} lbrack ibid. 38, 121--136 (2003; Zbl 1019.65002) brack.

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  1. Araneda, Axel A.: The fractional and mixed-fractional CEV model (2020)
  2. Fečkan, Michal: Note on periodic and asymptotically periodic solutions of fractional differential equations (2020)
  3. Frolenkov, Dmitry: The cubic moment of automorphic (L)-functions in the weight aspect (2020)
  4. Holzleitner, Markus: Transformation operators for spherical Schrödinger operators (2020)
  5. Jenkins, Robert; Liu, Jiaqi; Perry, Peter; Sulem, Catherine: The derivative nonlinear Schrödinger equation: global well-posedness and soliton resolution (2020)
  6. Abd-Elhameed, W. M.: New formulae between Jacobi polynomials and some fractional Jacobi functions generalizing some connection formulae (2019)
  7. Adell, José A.; Lekuona, Alberto: Explicit expressions for higher order binomial convolutions of numerical sequences (2019)
  8. Agarwal, Ravi P.; Kılıçman, Adem; Parmar, Rakesh K.; Rathie, Arjun K.: Certain generalized fractional calculus formulas and integral transforms involving ((p, q))-Mathieu-type series (2019)
  9. Agoh, Takashi: Determinantal expressions for Bernoulli polynomials (2019)
  10. Ahlgren, Scott; Dunn, Alexander: Maass forms and the mock theta function (f(q)) (2019)
  11. Akemann, Gernot; Byun, Sung-Soo: The high temperature crossover for general 2D Coulomb gases (2019)
  12. Alberti, Giovanni S.; Bartolucci, Francesca; De Mari, Filippo; De Vito, Ernesto: Unitarization and inversion formulae for the Radon transform between dual pairs (2019)
  13. Anh, Vo; Leonenko, Nikolai; Olenko, Andriy; Vaskovych, Volodymyr: On rate of convergence in non-central limit theorems (2019)
  14. Anh, Vo; Olenko, Andriy; Vaskovych, Volodymyr: On LSE in regression model for long-range dependent random fields on spheres (2019)
  15. Antunes, P. R. S.; Buoso, D.; Freitas, P.: On the behavior of clamped plates under large compression (2019)
  16. Arista, Jonas; O’Connell, Neil: Loop-erased walks and random matrices (2019)
  17. Bachelot, Alain: Wave asymptotics at a cosmological time-singularity: classical and quantum scalar fields (2019)
  18. Balandin, Alexander: The semi-analytical method for inversion of a weighted vector ray transform in three dimensions (2019)
  19. Balkanova, Olga; Bhowmik, Gautami; Frolenkov, Dmitry; Raulf, Nicole: A mean value result for a product of $\mathrmGL(2)$ and $\mathrmGL(3)$ $L$-functions (2019)
  20. Band, Ram; Gnutzmann, Sven; Krueger, August J.: On the nodal structure of nonlinear stationary waves on star graphs (2019)

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