Lévy flights and Lévy walks under stochastic resetting

Stochastic resetting is a protocol of starting anew, which can be used to facilitate the escape kinetics. We demonstrate that restarting can accelerate the escape kinetics from a finite interval restricted by two absorbing boundaries also in the presence of heavy-tailed, L\'evy-type, -stable noise. However, the width of the domain where resetting is beneficial depends on the value of the stability index determining the power-law decay of the jump length distribution. For heavier (smaller) distributions, the domain becomes narrower in comparison to lighter tails. Additionally, we explore connections between L\'evy flights (LFs) and L\'evy walks (LWs) in the presence of stochastic resetting. First of all, we show that for L\'evy walks, the stochastic resetting can also be beneficial in the domain where the coefficient of variation is smaller than 1. Moreover, we demonstrate that in the domain where LWs are characterized by a finite mean jump duration (length), with the increasing width of the interval, the LWs start to share similarities with LFs under stochastic resetting.