1982
DOI: 10.1007/bf02249937
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An a priori estimate for the truncation error of a continued fraction expansion to the Gaussian error function

Abstract: --Zusammenfassung An a priori Estimate for the Truncation Error of a Continued Fraction Expansion to the Gaussian ErrorFunction. The truncation error for a continued fraction to the Gaussian error function is estimated. The precision of the obtained bounds is verified by comparison with the exact values. The related precision as well as the number of needed iterations are discussed in several ways.AMS Subject Classifications. Primary: 33A20; secondary: 30A04, 3A22, 41A20, 41A21,65D20, 65G05. Key words." Gaussi… Show more

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Cited by 3 publications
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“…Transducers also allow one to deduce the continued fraction expansion of an homographic image from the continued fraction expansion of the original number (see [87]). The analytic theory of continued fractions has now proved its efficiency for the evaluation of functions (see the classic references [55,97] and also [17,28] for a priori truncation error estimates for continued fraction representations). Lastly, based on the work of Gosper [47], exact real computer arithmetic with continued fractions has also been thoroughly investigated (see [95], and also [60,66,73]).…”
mentioning
confidence: 99%
“…Transducers also allow one to deduce the continued fraction expansion of an homographic image from the continued fraction expansion of the original number (see [87]). The analytic theory of continued fractions has now proved its efficiency for the evaluation of functions (see the classic references [55,97] and also [17,28] for a priori truncation error estimates for continued fraction representations). Lastly, based on the work of Gosper [47], exact real computer arithmetic with continued fractions has also been thoroughly investigated (see [95], and also [60,66,73]).…”
mentioning
confidence: 99%