
Explore laws constraining sensitivity in small, nonequilibrium systems. Uncover mechanisms behind biochemical switches, sensors, and molecular discrimination, with implications for gene regulation models.

Découvrez les avancées en physique théorique lors de la remise du Prix Langevin, avec un exposé captivant de Kirone Mallick sur les dernières recherches du domaine.

Explore fundamental forces and nonequilibrium potentials in topology, uncovering insights into energy flows, constraints, and limits in cellular processes and bioenergetics.

Explore the physics of biological membranes, covering lipid bilayers, surface energy, curvature, fluctuations, and non-equilibrium processes in this comprehensive lecture on membrane biophysics.

Explores mesoscale structures in many-body systems, explaining the autonomy of continuum equations and their connection to lower-scale physics, with implications for deep neural networks.

Explore large deviation theory in statistical physics, covering Markov processes, dynamical observables, and advanced mathematical concepts. Gain insights into recent developments and applications in nonequilibrium systems.

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

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

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

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 how contractile microtubules create dynamic membranes and foams, revealing insights into active matter and its applications in biological systems and beyond.

Explore theoretical foundations of active matter through ideal microscopic models, gaining insights into complex systems and their behaviors.

Explore computational modeling techniques for active systems, focusing on advanced concepts and practical applications in the field of active matter.

Explore computational modeling techniques for active systems, focusing on advanced concepts and practical applications in the field of active matter.

Explore theoretical foundations of active matter through ideal microscopic models, gaining insights into complex systems and their behaviors.

Explore theoretical foundations of active matter through ideal microscopic models, gaining insights into this dynamic field of physics and biology.

Explore dynamical phase transitions through repeated partial information erasure, examining local probing techniques and their implications in complex systems.

Explore stochastic trajectory analysis to infer force fields, examining Brownian dynamics and empirical measures for enhanced understanding of complex systems.

Explore cluster formation, order, and aggregation in active matter systems, focusing on various classes of active phase separation phenomena.

Explore advanced concepts in statistical physics, focusing on complex systems and interdisciplinary applications. Gain insights from leading experts in the field.