GENERATING FUNCTION FOR BERNOULLI NUMBERS AND ITS GENERALIZATIONS

Authors:

Gasanov Magomedyusuf,

DOI NO:

https://doi.org/10.26782/jmcms.2025.10.00006

Keywords:

Bernoulli numbers,generating function,Taylor series,uniform convergence,special functions,incomplete gamma function,Riemann zeta function,Lambert function,

Abstract

This paper explores certain generalizations of the generating function of Bernoulli numbers, the computation of integrals, and the investigation of the convergence of integrals from these functions. The primary tools employed in the research include the use of Taylor series, theorems on uniform continuity (such as Weierstrass's and Dini's theorems), as well as special functions such as the gamma function, incomplete gamma function, Riemann zeta function, and Lambert function. Various examples for specific parameter values are considered in the article. The obtained results can be strengthened in subsequent works and generalized to a broader class of functions. The derived estimates can be applied in various tasks related to the assessment of similar integrals.

Refference:

I. Ding, Xianfeng, Dan Qu, and Haiyan Qiu. (2018). A New Production Prediction Model Based on Taylor Expansion Formula. Mathematical Problems in Engineering. 10.1155/2018/1369639.
II. Kong, Qingkai, Timmy Siauw, and Alexandre M. Bayen. (2021). Chapter 18 – Taylor Series. In Python Programming and Numerical Methods, Academic Press, pp. 315–323. ISBN 9780128195499. 10.1016/B978-0-12-819549-9.00028-2.
III. Kitagawa, T.L. (2022). The Origin of the Bernoulli Numbers: Mathematics in Basel and Edo in the Early Eighteenth Century. Mathematical Intelligencer, 44, pp. 46–56. 10.1007/s00283-021-10072-y.
IV. Li, C. (2022). Taylor Series Expansion and Application in Error Estimate. In Time Series Data Analysis in Oceanography: Applications using MATLAB, Cambridge University Press, pp. 110–129. 10.1017/9781108697101.007.
V. Morse, P.M., and H. Feshbach. (1953). Derivatives of Analytic Functions, Taylor and Laurent Series. § 4.3 in Methods of Theoretical Physics, Part I, McGraw-Hill, pp. 374–398.

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