  We report a simulation study on the narrow escape kinetics of a Chiral Active
Particle (CAP) confined to a circular domain with a narrow escape opening. The
studys main objective is to optimize the CAPs escape changes as a function of
the relevant parameters, such as translational and rotational speeds of the
CAP, domain size, etc. We identified three regimes in the escape kinetics,
namely the noise-dominated regime, the optimal regime, and the chiral
activity-dominated regime. In particular, the optimal regime is characterized
by an escape scheme that involves a direct passage to the domain boundary first
and then a unidirectional drift along the boundary towards the exit.
Furthermore, we propose a non-dimensionalization approach to optimize the
escape performance across microorganisms with varying motile characteristics.
Additionally, we explore the influence of the translational and rotational
noise on the CAPs escape kinetics
