2016
DOI: 10.1103/physrevb.94.125433
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Short-time counting statistics of charge transfer in Coulomb-blockade systems

Abstract: We study full counting statistics of electron tunneling in Coulomb-blockade systems in the limit of short measuring-time intervals. This limit is particularly suited to identify correlations among tunneling events, but only when analyzing the charge-transfer statistics in terms of factorial cumulants CF,m(t) rather than ordinary ones commonly used in literature. In the absence of correlations, the short-time behavior of the factorial cumulants is given by CF,m(t) ∝ (−1) m−1 t m . A different sign and/or a diff… Show more

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Cited by 37 publications
(29 citation statements)
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“…For example, it may be useful also for obtaining the transients of the counting statistics of time-independent conductors such as those studied in Refs. [31,45,46]. Moreover, it may be applied to non-Markovian effects that can be captured by time-local master equations with time-dependent coefficients [47].…”
Section: Discussionmentioning
confidence: 99%
“…For example, it may be useful also for obtaining the transients of the counting statistics of time-independent conductors such as those studied in Refs. [31,45,46]. Moreover, it may be applied to non-Markovian effects that can be captured by time-local master equations with time-dependent coefficients [47].…”
Section: Discussionmentioning
confidence: 99%
“…The corresponding factorial cumulants CnormalF,mfalse(tfalse):=Nfalse(mfalse)false(tfalse) are obtained from CnormalF,mfalse(tfalse):=mzmlnMFfalse(z,tfalse)-2|z=0. In the context of single‐electron tunneling, the use of factorial rather than ordinary cumulants has been suggested as a convenient tool to identify interactions in the system. Furthermore, factorial and generalized factorial cumulants () have been analyzed in the short‐time limit to detect the presence of fundamental tunneling processes (such as Andreev tunneling) of two electrons simultaneously (). Here, we are going to use factorial cumulants to probe the violation of detailed balance by comparing CnormalF,minfalse(tfalse) with CnormalF,moutfalse(tfalse).…”
Section: Stochastic Systemsmentioning
confidence: 99%
“…Those artificial two-electron processes (pair-tunneling events) result in completely different statistics for short times t=τ det . Instead of equation (19), we observe in the short-time limit for all even cumulants C t [49]. As a consequence, despite a small variance in the experimental data, the cumulants should not be trusted below t<τ det .…”
Section: Finite-resolution Detectormentioning
confidence: 61%