We study how inertia affects the behavior of self-propelled particles moving through a
viscous solvent by employing the underdamped version of the active Ornstein–Uhlenbeck …

Recent investigations of the phase diagram of spherical, purely repulsive, active particles
established the existence of a transition from a liquidlike to a solidlike phase analogous to …

We propose a new overarching model for self-propelled particles that flexibly generates a
full family of “descendants.” The general dynamics introduced in this paper, which we …

Recently, it has been discovered that systems of active Brownian particles (APB) at high
density organise their velocities into coherent domains showing large spatial structures in …

We study the late-time dynamics of a single active Brownian particle in two dimensions with
speed v 0 and rotation diffusion constant DR. We show that at late times t≫ DR− 1, while the …

We study the dynamical properties of an active particle subject to a swimming speed
explicitly depending on the particle position. The oscillating spatial profile of the swim …

We study the motion of active Janus colloids in an optical trap using experiments, theory and
numerical simulations. To achieve isotropic and harmonic confinement, we prototype …

Inertial effects affecting both the translational and rotational dynamics are inherent to a
broad range of active systems at the macroscopic scale. Thus, there is a pivotal need for …

Rich phenomena from complex systems have long intrigued researchers, and yet modeling
system micro-dynamics and inferring the forms of interaction remain challenging for …

We study the dynamics of one-dimensional active particles confined in a double-well
potential, focusing on the escape properties of the system, such as the mean escape time …