2003
DOI: 10.1007/3-540-44839-x_83
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Computing the Incomplete Gamma Function to Arbitrary Precision

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Cited by 17 publications
(15 citation statements)
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“…(9) is used for z P > (using at most ( ) O P terms), 0 a > and . a z < Thus, the calculation of the incomplete Gamma function ( , ) a z Γ for 0 z > requires ( ) O P long multiplications uniformly in z [15] . Thus using Eqs.…”
Section: Solution Of Membrane Equationmentioning
confidence: 99%
“…(9) is used for z P > (using at most ( ) O P terms), 0 a > and . a z < Thus, the calculation of the incomplete Gamma function ( , ) a z Γ for 0 z > requires ( ) O P long multiplications uniformly in z [15] . Thus using Eqs.…”
Section: Solution Of Membrane Equationmentioning
confidence: 99%
“…There exist many studies in the literature on different proposed methods for the numerical calculation of the incomplete gamma function [22][23][24]. MATLAB® also provides some tools for the calculation of the inverse incomplete gamma (gammaincinv) function.…”
Section: A Brief Description Of the Vortex Search Algorithmmentioning
confidence: 99%
“…The number of Gamma function evaluations required increases as M increases, ranging from nine for small M to as large as several thousand for large M . In contrast, the proposed approximations consist of error functions, which are known to have lower computational complexity than both confluent hypergeometric and Gamma functions [11]. The integer mn approximation requires only two error function evaluations, the large SN R approximation requires one error function evaluation and one Gamma function evaluation, while the large mn approximation requires four error function evaluations.…”
Section: B Computational Complexitymentioning
confidence: 99%