Microscopic active droplets are able to swim autonomously in viscous flows. This puzzling
feature stems from solute exchanges with the surrounding fluid via surface reactions or their …

Phase separating systems that are maintained away from thermodynamic equilibrium via
molecular processes represent a class of active systems, which we call active emulsions …

The fluid dynamics of microswimmers has received attention from the fields of microbiology,
microrobotics, and active matter. Microorganisms have evolved organelles termed cilia for …

The field of active matter, and particularly active emulsions, is growing rapidly, with
significant progress made recently on both theoretical and experimental fronts. Here, we …

Living organisms employ chemical self-organization to build structures, and inspire new
strategies to design synthetic systems that spontaneously take a particular form, via a …

Chiral active particles (CAPs) are self-propelling particles that break time-reversal symmetry
by orbiting or spinning, leading to intriguing behaviors. Here, we examined the dynamics of …

Over the last decade, the Lattice Boltzmann method has found major scope for the
simulation of a large spectrum of problems in soft matter, from multiphase and multi …

Chemically active colloids locally change the chemical composition of their solvent via
catalytic reactions which occur on parts of their surface. They achieve motility by converting …

Drop motility at liquid surfaces is attracting growing interest because of its potential
applications in microfluidics and artificial cell design. Here we report the unique highly …

Due to the intrinsically complex non‐equilibrium behavior of the constituents of active matter
systems, a comprehensive understanding of their collective properties is a challenge that …