How target distributions shape optimal stochastic resetting
Gregorio Garc\'ia-Valladares, Antonio Prados, Alessandro Manacorda, Carlos A. Plata

TL;DR
This paper studies how the spatial distribution of a target influences the optimal stochastic resetting strategy for a searcher performing Brownian motion in a finite domain, revealing phase transitions and criteria for optimality.
Contribution
It introduces a framework to determine the optimal bulk resetting rate based on target distribution, highlighting the impact of target shape on search efficiency.
Findings
Optimal resetting strategy exhibits a second-order transition.
Derived mathematical criteria for various target distributions.
Target distribution critically influences search optimization.
Abstract
We investigate the search of a target with a given spatial distribution in a finite one-dimensional domain. The searcher follows Brownian dynamics and is always reset to its initial position when reaching the boundaries of the domain (boundary resetting). In addition, the searcher may be reset to its initial position from any internal point of the domain (bulk resetting). Specifically, we look for the optimal strategy for bulk resetting, i.e., the spatially dependent bulk resetting rate that minimizes the average search time. The best search strategy exhibits a second-order transition from vanishing to nonvanishing bulk resetting when varying the target distribution. The obtained mathematical criteria are further analyzed for different monoparametric families of distributions, which sheds light on the properties that control the optimal strategy for bulk resetting. Our work paves new…
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Taxonomy
TopicsDiffusion and Search Dynamics · stochastic dynamics and bifurcation · Molecular Communication and Nanonetworks
