2001
DOI: 10.1137/1.9780898719260
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Asymptotic Approximations of Integrals

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Cited by 486 publications
(499 citation statements)
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“…also section 3.4 below) truncated at N = 5. An asymptotic analysis of the integral I in (3.51) at large R confirms this Yukawa-like behavior: using a stationary phase approach, the relevant function to study is f (k) = ka −1 ω at k = 0 [37]. The asymptotic behavior at large R is strongly dependent on the behavior of the even derivatives of f (k) and in particular the existence of power-law behavior seems to be connected to non-zero even derivatives of this function.…”
Section: Jhep01(2014)138mentioning
confidence: 72%
“…also section 3.4 below) truncated at N = 5. An asymptotic analysis of the integral I in (3.51) at large R confirms this Yukawa-like behavior: using a stationary phase approach, the relevant function to study is f (k) = ka −1 ω at k = 0 [37]. The asymptotic behavior at large R is strongly dependent on the behavior of the even derivatives of f (k) and in particular the existence of power-law behavior seems to be connected to non-zero even derivatives of this function.…”
Section: Jhep01(2014)138mentioning
confidence: 72%
“…In fact the saddle point method [2,14] is applicable to the Laplace inversion integral f r (t) = 1 2iπ…”
Section: Introduction and Main Resultsmentioning
confidence: 99%
“…The integrals that appear in (14) are in a form compatible with applying Watson's lemma [28]. In fact, Watson's lemma can be applied directly to the denominator.…”
Section: Motivations For the Diffusion Approximationmentioning
confidence: 99%