2010
DOI: 10.1051/ps:2008030
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Central limit theorem for sampled sums of dependent random variables

Abstract: Abstract. We prove a central limit theorem for linear triangular arrays under weak dependence conditions. Our result is then applied to dependent random variables sampled by a Z-valued transient random walk. This extends the results obtained by [N. Guillotin-Plantard and D. Schneider, Stoch. Dynamics 3 (2003) 477-497]. An application to parametric estimation by random sampling is also provided.

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Cited by 8 publications
(7 citation statements)
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References 29 publications
(31 reference statements)
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“…Far from being exhaustive, we can cite strong approximation results and laws of the iterated logarithm [15,16,31], limit theorems for correlated sceneries or walks [26,27,14], large and moderate deviations results [1,22,10,11], ergodic and mixing properties (see the survey [20]).…”
Section: Introduction and Main Resultsmentioning
confidence: 99%
“…Far from being exhaustive, we can cite strong approximation results and laws of the iterated logarithm [15,16,31], limit theorems for correlated sceneries or walks [26,27,14], large and moderate deviations results [1,22,10,11], ergodic and mixing properties (see the survey [20]).…”
Section: Introduction and Main Resultsmentioning
confidence: 99%
“…we prove that for P-almost every fixed path of the random scenery, a limit theorem holds for Z n (correctly renormalized). It is worth remarking that when the random walk S is fixed, functional limit theorems for the sequence (Z [nt] ) t≥0 have been proved (see [17,23,21]). Indeed, conditionally to the random walk, the sum Z n can be viewed as a sum of IID random variables weighted by the local time of the random walk.…”
Section: Introduction and Resultsmentioning
confidence: 99%
“…In this direction we now give the following result on the asymptotic moments of the self-intersection local time V n , For α ∈ Z, let N α (n) = n j=0 1 S j =α . The proof of a.s. convergence of V n /EV n → 1 is essentially given in [12] but relies heavily on the bound var(V n ) = O(n 2 ). The rest be easily adapted from [1].…”
Section: Proof Of Theorem 23mentioning
confidence: 99%