
Explore the physics of active surfaces, including fundamental concepts and state-of-the-art approaches in this field of study. Gain insights into the behavior of active matter in complex environments.

Explore inertial turbulence in low Reynolds number active suspensions. Gain insights into complex fluid dynamics and their applications in microorganism locomotion and bioengineering.

Explores active caustics in nonequilibrium systems, discussing recent progress and applications in diverse fields like granular systems, control theory, and biological processes.

Explore non-equilibrium dynamics of Active Brownian Particles, a paradigm in active matter physics. Learn about directed motion, complex environments, and cutting-edge research in this field.

Explore enhanced mixing and vortical flow patterns created by confined microalgae, examining their impact on fluid dynamics and potential applications in microfluidic systems.

Explores cooperative kinetics in living liquid crystals, examining active matter dynamics and their applications in biological systems and collective behavior.

Explore collective motion in finite flocks, examining dynamics and patterns of group behavior in active matter systems like bird flocks and fish schools.

Explores active fluctuations and microphase separation in cell nuclei, discussing recent developments in active matter research and its applications to biological systems.

Explore the Simha-Ramaswamy instability and its implications for flocks in fluids. Gain insights into active matter physics and collective behavior in biological systems.

Explore the effects of inertia and reciprocity on active matter systems, examining their influence on collective behavior and dynamics in non-equilibrium environments.

Explore active matter physics: particles converting energy into work. Delve into recent research, connections to driven systems, and future directions in nonequilibrium and soft-matter physics.

Explore orientational order in developmental processes, examining its role and implications in active matter systems and biological phenomena.

Explores extreme deformations in active crystals, discussing novel nonequilibrium systems with energy throughput at individual unit level. Highlights applications in biological processes and collective behavior.

Explores yielding behavior in active amorphous solids, examining nonequilibrium dynamics and energy dissipation at the individual unit level within the context of active matter systems.

Explores novel instability, waves, and turbulence in polar active fluids, advancing understanding of nonequilibrium systems with energy throughput at individual unit level.

Explores enhanced order in two-temperature models of scalar activity, discussing recent progress and applications in active matter systems like cellular dynamics and collective animal behavior.

Explore circle swimmers, gravitaxis, and harmonic oscillators in active matter systems. Gain insights into fundamental concepts and their applications in complex environments.

Explore active matter theory and cytoskeletal dynamics, focusing on non-equilibrium physics in cellular systems and the role of energy flows in driving biological functions.

Explores control of topological defects in active and living matter, discussing recent progress and applications in biological systems and collective behavior.

Explore active matter physics: particles converting energy to work. Delve into recent research, connections to driven systems, and future directions in nonequilibrium and soft-matter physics.

Explore effervescent waves in binary mixtures with non-reciprocal couplings, examining their unique properties and implications for active matter systems and beyond.