Thermodynamic Trade-off Relation for First Passage Time in Resetting Process
Priyo Shankar Pal, Arnab Pal, Hyunggyu Park, Jae Sung Lee

TL;DR
This paper derives a thermodynamic trade-off relation between the mean first passage time and work cost in resetting processes, considering finite-time resetting with a trapping potential, revealing fundamental limits and advantages of different resetting protocols.
Contribution
It introduces a thermodynamic framework for resetting processes with finite-time trapping, deriving a universal trade-off relation and analyzing the impact of potential shape and resetting protocols.
Findings
Instantaneous resetting requires infinite work.
Linear potential provides a lower bound for the time-cost trade-off.
Fixed-time resetting can outperform stochastic resetting in the trade-off.
Abstract
Resetting is a strategy for boosting the speed of a target-searching process. Since its introduction over a decade ago, most studies have been carried out under the assumption that resetting takes place instantaneously. However, due to its irreversible nature, resetting processes incur a thermodynamic cost, which becomes infinite in case of instantaneous resetting. Here, we take into consideration both the cost and first passage time (FPT) required for a resetting process, in which the reset or return to the initial location is implemented using a trapping potential over a finite but random time period. An iterative generating function and counting functional method \`a la Feynman and Kac are employed to calculate the FPT and average work for this process. From these results, we obtain an explicit form of the time-cost trade-off relation, which provides the lower bound of the mean FPT…
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Taxonomy
TopicsDiffusion and Search Dynamics · Surface Chemistry and Catalysis
