AbstractIn this paper, we propose another yet generalization of Stirling numbers of the first kind for noninteger values of their arguments. We discuss the analytic representations of Stirling numbers through harmonic numbers, the generalized hypergeometric function and the logarithmic beta integral. We present then infinite series involving Stirling numbers and demonstrate how they are related to Euler sums. Finally, we derive the closed form for the multiple zeta function ζ(p, 1,…, 1) for Re(p)>1
For all integers n≥k≥1, define H(n,k):=∑1/(i1⋯ik), where the sum is extended over all positive integ...
Abstract. A large number of sequences of polynomials and num-bers have arisen in mathematics. Some o...
We present new proofs for some summation identities involving Stirling numbers of both first and sec...
AbstractIn this paper, we propose another yet generalization of Stirling numbers of the first kind f...
In this paper, we propose another yet generalization of Stirling numbers of the first kind for nonin...
Abstract. In this paper, we propose the another yet generalization of Stirling numbers of the rst ki...
AbstractThe domains of the Stirling numbers of both kinds are extended from N2 to Z2. These extensio...
AbstractIt is shown that various well-known generalizations of Stirling numbers of the first and sec...
AbstractThe degenerate Stirling numbers and degenerate Eulerian polynomials are intimately connected...
AbstractThe value of the (exponential) complete Bell polynomials for certain arguments, given essent...
The aim of this paper is to study the $ \lambda $-Stirling numbers of both kinds, which are $ \lambd...
AbstractThe generalized Stirling numbers introduced recently (Mansour and Schork, 2011 [5], Mansour ...
AbstractStirling numbers of the first and second kinds, s(n,k) and S(n,k), may be defined by means o...
Exponentiating the hypergeometric series 0FL(1,1,...,1;z), L = 0,1,2,..., furnishes a recursion re...
AbstractIn Part I, Stirling numbers of both kinds were used to define a binomial (Laurent) series of...
For all integers n≥k≥1, define H(n,k):=∑1/(i1⋯ik), where the sum is extended over all positive integ...
Abstract. A large number of sequences of polynomials and num-bers have arisen in mathematics. Some o...
We present new proofs for some summation identities involving Stirling numbers of both first and sec...
AbstractIn this paper, we propose another yet generalization of Stirling numbers of the first kind f...
In this paper, we propose another yet generalization of Stirling numbers of the first kind for nonin...
Abstract. In this paper, we propose the another yet generalization of Stirling numbers of the rst ki...
AbstractThe domains of the Stirling numbers of both kinds are extended from N2 to Z2. These extensio...
AbstractIt is shown that various well-known generalizations of Stirling numbers of the first and sec...
AbstractThe degenerate Stirling numbers and degenerate Eulerian polynomials are intimately connected...
AbstractThe value of the (exponential) complete Bell polynomials for certain arguments, given essent...
The aim of this paper is to study the $ \lambda $-Stirling numbers of both kinds, which are $ \lambd...
AbstractThe generalized Stirling numbers introduced recently (Mansour and Schork, 2011 [5], Mansour ...
AbstractStirling numbers of the first and second kinds, s(n,k) and S(n,k), may be defined by means o...
Exponentiating the hypergeometric series 0FL(1,1,...,1;z), L = 0,1,2,..., furnishes a recursion re...
AbstractIn Part I, Stirling numbers of both kinds were used to define a binomial (Laurent) series of...
For all integers n≥k≥1, define H(n,k):=∑1/(i1⋯ik), where the sum is extended over all positive integ...
Abstract. A large number of sequences of polynomials and num-bers have arisen in mathematics. Some o...
We present new proofs for some summation identities involving Stirling numbers of both first and sec...