Integral Representation of Some Functions Related to the Gamma Function
By Christian Berg. 2004
164 citations recorded by the source corpus.
Abstract.We prove that the functions $$\Phi (x) = [\Gamma (x + 1)]^{1/x} (1 + 1/x)^x /x$$ and $$\log \Phi (x)$$ are Stieltjes transforms.
Subfields: Applied Mathematics
View Paper: https://www.semanticscholar.org/paper/b9a69c3d706b853b6fa59204ebea0a0961f640a3
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In Applied Mathematics
- Feng Qi (祁锋)
- Bai-Ni Guo (郭白妮)
- Chao Chen
- Mourad E. H. Ismail
- Jorge Mateu
- Arcadii Z. Grinshpan
- 'Arp'ad Baricz
- Emilio Porcu
Citations in the corpus
- A PROPERTY OF LOGARITHMICALLY ABSOLUTELY MONOTONIC FUNCTIONS AND THE LOGARITHMICALLY COMPLETE MONOTONICITY OF A POWER-EXPONENTIAL FUNCTION (2009, background): “It is said in [7] that “In various papers complete monotonicity for special functions has been established by proving the stronger statement that the function is a Stieltjes transform”.”
- Bounds for the Ratio of Two Gamma Functions (2009, background): “For more information, please refer to [10, 59, 60] and related references therein.”
- Logarithmically completely monotonic functions relating to the gamma function (2006, background): “Motivated by the papers [25,26], among other things, it is proved in [9] that S \ {0} ⊂ L⊂ C.”
- Mills' ratio: Monotonicity patterns and functional inequalities (2008, result): “Berg [7] pointed out that the logarithmically complete monotonic functions in fact are the same as those studied by R.”
- Refinements of lower bounds for polygamma functions (2009, background): “that all logarithmically completely monotonic functions are also completely monotonic, but not conversely. This result was formally published when revising [15]. For more information, please refer to [7, 20]. Lemma2. Theinequality ψ′(t) <e1/t−1 (16) holdson(0,∞). Moregenerally, thefunction e1/t−ψ”
- TWO NEW PROOFS OF THE COMPLETE MONOTONICITY OF A FUNCTION INVOLVING THE PSI FUNCTION (2009, background): “Recall also [4, 5, 8, 16, 18] that a positive function f is said to be logarithmically completely monotonic on an interval I if f has derivatives of all orders on I and (3) (−1)n[ln f(x)] ≥ 0 for all x ∈ I and n ∈ N.”
- Stieltjes-Pick-Bernstein-Schoenberg and their connection to complete monotonicity (2007, unknown): “See Example (c) in Section 4.)”
- The Best Bounds in Gautschi-Kershaw Inequalities (2006, unknown): “([ 2, 14, 15, 16 ]) A logarithmically completely monotonic function is also completely monotonic.”
- Completely monotonic functions involving the gamma and q-gamma functions (2005, background): “This holds in a wider sense without the standard normalization f (0) = 1, and also for f (0) = ∞ (cf. [8]).”
- Three classes of logarithmically completely monotonic functions involving gamma and psi functions (2007, background): “[10] that S \ {0} ⊂ L[(0, ∞)] ⊂ C[(0, ∞)], where S denotes the set of Stieltjes transforms.”
- A Completely Monotonic Function Involving Divided Differences of Psi and Polygamma Functions and an Application (2006, unknown): “It was proved explicitly in [10, 42, 45, 46, 53] by different approaches that any logarithmically completely monotonic function must be completely monotonic, but not conversely.”
- On potentially negative space time covariances obtained as sum of products of marginal ones (2008, background): “De Iaco, Myers and Posa (2001), with some algebraic manipulation, showed that model (4) can be rewritten as γs,t(h, u) = γs,t(h, 0) + γs,t(0, u) − kγs,t(h, 0)γs,t(0, u)”