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Limit Forms of the Distribution of the Number of Renewals

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arxiv 2007.00381 v1 pith:N5OV3SPG submitted 2020-07-01 cond-mat.stat-mech math-phmath.MP

classification cond-mat.stat-mechmath-phmath.MP
keywords limitdistributioninftylargenumberrenewalsuniversalasymptotic
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abstract

In this work the asymptotic properties of $Q_t(N)$ ,the probability of the number of renewals ($N$), that occur during time $t$ are explored. While the forms of the distribution at very long times, i.e. $t\to\infty$, are very well known and are related to the Gaussian Central Limit Theorem or the L\'{e}vy stable laws, the alternative limit of large number of renewals, i.e. $N\to\infty$, is much less noted. We address this limit of large $N$ and find that it attains a universal form that solely depends on the analytic properties of the distribution of renewal times. Explicit formulas for $Q_t(N)$ are provided, together with corrections for finite $N$ and the necessary conditions for convergence to the universal asymptotic limit. Our results show that the Large Deviations rate function for $N/t$ exists and attains an universal linear growth (up to logarithmic corrections) in the $N/t\to\infty$ limit. This result holds irrespective of the existence of mean renewal time or presence of power-law statistics.

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  1. Nonequilibrium steady state of Brownian motion in an intermittent potential

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    For a Brownian particle in a rapidly switching intermittent trap, the far-tail distribution is a universal exponential and periodic traps show a first-order dynamical phase transition without drift.

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