The series limit of sum_k 1/[k log k (log log k)^2]
Richard J. Mathar

TL;DR
This paper accurately evaluates the sum of a slowly converging series involving logarithmic terms by combining integral approximation and bias correction, providing precise numerical results for specific parameter values.
Contribution
It introduces a method to evaluate complex logarithmic series by replacing the tail with an integral and correcting biases, achieving high-precision results.
Findings
Sum for a=2: 38.4067680928
Method applicable to other a values like 3 and 4
Provides a systematic approach for series with slow convergence
Abstract
The slowly converging series sum_{k=3}^infinity 1/[k * log k * (log log k)^a] is evaluated to 38.4067680928 at a=2. After some initial terms, the infinite tail of the sum is replaced by the integral of the associated interpolating function, which is available in simple analytic form. Biases that originate from the difference between the smooth area under the function and the corresponding Riemann sum are corrected by standard means. The cases a=3 and a=4 are computed in the same manner.
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Taxonomy
TopicsAnalytic Number Theory Research · Advanced Mathematical Identities · Mathematics and Applications
