
arXiv: 0910.5431
Loynes' distribution, which characterizes the one dimensional marginal of the stationary solution to Lindley's recursion, possesses an ultimately exponential tail for a large class of increment processes. If one can observe increments but does not know their probabilistic properties, what are the statistical limits of estimating the tail exponent of Loynes' distribution? We conjecture that in broad generality a consistent sequence of non-parametric estimators can be constructed that satisfies a large deviation principle. We present rigorous support for this conjecture under restrictive assumptions and simulation evidence indicating why we believe it to be true in greater generality.
7 pages, 2 figures
330, Probability (math.PR), 60K25, 60F10, Loyne's exponent, Queueing theory (aspects of probability theory), single server queue, 510, estimating large deviations, Large deviations, FOS: Mathematics, Mathematics - Probability, Hamilton Institute
330, Probability (math.PR), 60K25, 60F10, Loyne's exponent, Queueing theory (aspects of probability theory), single server queue, 510, estimating large deviations, Large deviations, FOS: Mathematics, Mathematics - Probability, Hamilton Institute
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