Orthogonal Polynomials and Special Functions
By Francisco Marcellán, Walter Van Assche. 2003
583 citations recorded by the source corpus.
Subfields: Computational Theory and Mathematics
View Paper: https://www.semanticscholar.org/paper/77822dc34499b1ea000c206a53461864edf8d419
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In Computational Theory and Mathematics
- Henry Cohn
- Jie Shen
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- Benoît Collins
Citations in the corpus
- Jacobi interpolation approximations and their applications to singular differential equations (2001, background): “One of them is as follows (see Askey [3]),”
- Generalized Jacobi polynomials/functions and their applications (2009, background): “The classical Jacobi polynomials with indexes α,β > −1 satisfy the following recurrence relations (see Szegö [35], Askey [2] and Rainville [31]): Jα,βn (−x) = (−1)nJ β,αn (x); (A.3) J α,β n−1(x) = Jα,β−1n (x) − Jα−1,βn (x), α,β > 0, n 1; (A.4) Jα,βn (x) = 1 n + α + β [ (n + β)J α,β−1n (x) + (n + α)J”
- Some connection and linearization problems for polynomials in and beyond the Askey scheme (2001, unknown): “The literature on these topics is extremely vast (see, e.g., [1] [2] [4] [21] [23] [24]), and a wide variety of methods have been devised for computing the linearization and connection coeecients, either in closed form or by means of recurrence relations (usually in k).”
- Graphical functions and single-valued multiple polylogarithms (2013, unknown): “Most conveniently Gegenbauer polynomials are defined by the following generating series [1, 22, 46]:”
- A positive radial product formula for the Dunkl kernel (2002, methodology): “We now employ a well-known degenerate version of the addition theorem for Gegenbauer polynomials (see [2], (4.”
- A necessary and sufficient condition for strictly positive definite functions on spheres (2003, methodology): “we have the following formula (see [ A , p. 30]):”
- Product of random projections, Jacobi ensembles and universality problems arising from free probability (2004, result): “√ u) √ vJb+1( √ v)+Jb( √ v) √ uJb+1( √ u) 2(u−v) For future use, note that the coefficient in ub/2+kvb/2+l of −Jb( √ u) √ vJb+1( √ v)+Jb( √ v) √ uJb+1( √ u) is (38) (k−l) (b+k)!k!(b+l)!l! According to [Ask75], p. 7 Formula (2.2) Pa,b n (−1+ 2u n2 )= (b+1)n n! Xn k=0 (−n)k(n+a+b+1)k k!(b +1)k u n2 k w”
- Decomposition of weighted Triebel–Lizorkin and Besov spaces on the ball (2007, unknown): “A function â ∈ C∞[0,∞) is called admissible of type (a) if supp â ⊂ [0, 2] and â(t) = 1 on [0, 1], and of type (b) if supp â ⊂ [1/2, 2].”
- Universally optimal distribution of points on spheres (2006, background): “That follows from Theorem 3.1, Lemma 8.4, and the fact that the set of nonnegative linear combinations of q0, q1, q2, . . . is closed under taking products (see [Gas] for the most general case or Theorem 5.2 in [ As , p. 44] for a simpler proof that applies to these orthogonal polynomials).”