The Annals of Mathematical Statistics · 1954 · 142 citations · 3 references
Natural SciencesMathematicsInformation TheoryProbability TheoryStochastic ProcessesExtreme Value TheoryOrder StatisticsStationary ProcessesAsymptotic AnalysisAsymptotic DependenceAsymptotic Distribution TheoryAsymptotic TheoryExtreme Order StatisticsIdentically Distributed Random VariablesStationary SequencesStochastic Process Analysis
The limiting distributions for the order statistics of $n$ successive observations in a sequence of independent and identically distributed random variables are shown to hold also when the sequence is generated by a stationary stochastic process of a certain moving average type. A sequence of random variables $\{x_i\}$ has been called $m$-dependent [3] if $| i - j | > m$ implies that $x_i$ and $x_j$ are independent. If the variables in a strictly stationary sequence are $m$-dependent and have a finite upper bound to their range of variation, the largest in a sample of $n$ successive members tends with probability one to this upper bound. This is a simple extension of Dodd's results [1] for the case of independence. The following theorem shows that when this upper bound is infinite, the asymptotic distribution of the largest in such a sample is the same as in the case of independence.
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