Acta Numerica · 1996 · 161 citations · 84 references
ComputingComputer ScienceAlgorithmsComputational GeometryComputational PhysicsMethod Of MomentsNumerical AlgorithmsNumerical AnalysisNumerical IntegrationNumerical Methods For Differential EquationsDiscretizationGauss QuadratureGauss-chebyshev QuadratureGaussian QuadratureOrthogonal PolynomialsQuadrature RulesQuadrature TheoryRecurrence
We give examples of problem areas in interpolation, approximation, and quadrature, that call for orthogonal polynomials not of the classical kind. We then discuss numerical methods of computing the respective Gauss-type quadrature rules and orthogonal polynomials. The basic task is to compute the coefficients in the three-term recurrence relation for the orthogonal polynomials. This can be done by methods relying either on moment information or on discretization procedures. The effect on the recurrence coefficients of multiplying the weight function by a rational function is also discussed. Similar methods are applicable to computing Sobolev orthogonal polynomials, although their recurrence relations are more complicated. The paper concludes with a brief account of available software.
84
Handbook of Mathematical Functions
Donald A. McQuarrie · American Journal of Physics · 1966 · 40.9K citations
Introduction to Numerical Analysis.
Carl-Erik Fröberg, Josef Stoer, Roland Bulirsch · Mathematics of Computation · 1981 · 5.5K citations
An Introduction to Orthogonal Polynomials.
W. G., T. S. Chihara · Mathematics of Computation · 1981 · 3K citations