
doi: 10.1002/nme.995
AbstractFor the numerical inversion of Laplace transforms we suggest to use multi‐precision computing with the level of precision determined by the algorithm. We present two such procedures. The Gaver–Wynn–Rho (GWR) algorithm is based on a special sequence acceleration of the Gaver functionals and requires the evaluation of the transform only on the real line. The fixed Talbot (FT) method is based on the deformation of the contour of the Bromwich inversion integral and requires complex arithmetic. Both GWR and FT have only one free parameter: M, which is the number of terms in the summation. Both algorithms provide increasing accuracy as M increases and can be realized in a few lines using current Computer Algebra Systems. Copyright © 2004 John Wiley & Sons, Ltd.
Gaver-Wynn-Rho algorithm, algorithm, sequence acceleration, Laplace transform, numerical inversion, Bromwich inversion integral, Numerical methods for integral transforms, multi-precision
Gaver-Wynn-Rho algorithm, algorithm, sequence acceleration, Laplace transform, numerical inversion, Bromwich inversion integral, Numerical methods for integral transforms, multi-precision
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