
Explore nonlinear dynamics of active solids through nonreciprocal mechanochemical feedback. Gain insights into collective phenomena in energy-consuming systems and their applications in various fields.

Explore a simple active solid model, from active actuation to collective motion, in this theoretical physics talk. Gain insights into emerging phenomena in active matter systems and their applications across diverse fields.

Explore adaptive locomotion in active solids with Corentin Coulais. Gain insights into energy-consuming components, collective phenomena, and the engineering of active solids for innovative shape changes and actuation.

Explore active mechanics and collective phenomena in energy-consuming systems. Gain insights into active solids, their behavior, and potential applications in various fields from biology to engineered materials.

Dive into the dynamics of active matter and biological systems, exploring collective phenomena, self-organization, and the biological pump with insights from Stanford researcher Rahul Chajwa.

Dive into the spectral dynamics of active materials with MIT's Jorn Dunkel, exploring collective phenomena in energy-consuming systems and their applications in diverse fields.

Dive into morphogenesis-mediated morphogen transport with Mattia Serra's conference talk, exploring active mechanics in biological systems and their implications for developmental processes.

Dive into the active Young-Dupre equation with Julien Tailleur from MIT, exploring innovative concepts in active matter and their applications in various scientific fields.

Explore robust emergent dynamics in topological stochastic systems with Evelyn Tang from Rice University. Gain insights into active matter and its applications in various fields.

Explore control strategies in active and robotic matter, focusing on collective phenomena and energy-consuming components in various systems, from living organisms to engineered materials.

Explore theoretical models of particle dynamics in shear flow, covering both passive and active systems in physics and biology.

Odkryj wpływ dyskretności, stochastyczności, geometrii i topologii na energię mechaniczną w małych miękkich materiałach granularnych.

Explore the correlation between static and dynamic properties in confluent epithelial systems, examining their impact on collective behavior and tissue mechanics.

Explore mechanical memory formation in dense granular suspensions, examining unique properties and behaviors of soft matter physics in various systems and applications.

Explores the impact of interaction potential on structure-dynamics correlations in soft matter systems, highlighting key insights for researchers in condensed matter physics and materials science.

Explore confluent monolayers of cell-mimics in this lecture, examining their properties, behavior, and implications for soft matter physics and biological systems.

Explore zero mean curvature surfaces in R3, Lorentz-Minkowski space, and hyperbolic spaces. Engage with experts, attend mini-courses, and participate in discussions on this evolving field of research.

Explore zero mean curvature surfaces in R3, Lorentz-Minkowski space, and hyperbolic spaces. Engage with experts, attend mini-courses, and participate in discussions on this evolving field of research.

Exploring the physics behind morphogenesis and how living matter shapes itself, focusing on recent developments in understanding complex biological transformations and organ development.

Explore the fascinating world of active matter in statistical physics. Learn about emergent behaviors, non-equilibrium dynamics, and collective phenomena in systems of self-propelled particles.

Explore phase separation in active cellular systems, focusing on droplet physics, centrosome dynamics, and RNA-protein assemblies. Learn how these processes drive cellular organization and morphogenesis.