Driven and Self-Driven Transport in Model Active Systems
Explore transport phenomena in soft matter systems, focusing on spinning particles driven by external fields and self-propelled particles with internal energy. Examine collective transport and shear rheology.
Activity Induced Rigidity of Liquid Droplets
Explore how active Janus particles increase droplet resistance to deformation in extensional flow, validating 3D pressure predictions for active particle ensembles.
Theoretical Foundations of Active Matter: Lessons from Ideal Microscopic Models - Class 1
Explore theoretical foundations of active matter through ideal microscopic models, gaining insights into this dynamic field of physics and biology.
Computational Modeling of Active Systems - Class 1
Explore computational modeling techniques for active systems, focusing on fundamental principles and practical applications in the field of active matter.
From Active Nematics to Mechanobiology - Class 1
Explore active nematics and mechanobiology with Julia M Yeomans, delving into cutting-edge research in active matter physics and its biological applications.
Physics of Flocking - Class 4
Explore advanced concepts in active matter physics, focusing on flocking behavior and collective motion in biological systems.
Cluster Formation, Order and Aggregation in Active Matter: Different Classes of Active Phase Separation
Explore cluster formation, order, and aggregation in active matter systems, focusing on various classes of active phase separation phenomena.
Active Reorganisation in Tissues
Explore collective cell motion in tissues, examining topology-preserving and breaking components, and their implications for wound healing, embryogenesis, and cancer metastasis.
A Touch of Non-Linearity: Mesoscale Swimmers and Active Matter in Fluids
Explore mesoscale swimmers and active matter in fluids, focusing on the transition from Stokes to intermediate Reynolds numbers and its impact on hydrodynamic interactions and collective behavior.
Sticking Together: How Bacterial Collectives Reshape Themselves
Explore how bacterial collectives spread, adapt, and grow in complex 3D environments using innovative imaging, 3D printing, and modeling techniques to predict and control their behavior.
Microtubules as Maxwell's Demons: Transport-Based Phase-Separation of a Binary System
Explore how microtubules and molecular motors self-organize into polarity-sorted domains, creating ordered structures in living cells through selective transport mechanisms.
Current Fluctuations in Noninteracting Run-and-Tumble Particles in One Dimension
Explore current fluctuations in noninteracting run-and-tumble particles, focusing on flux distribution through origin and anomalous large-deviation form in active particles.
Active Matter with Hexbugs Robot Toys - Experimental Demonstration
Explore active matter principles using Hexbugs robot toys in this hands-on experimental demonstration, unveiling fascinating insights into collective behavior and self-organization.
The Anomalous Transport of Tracers in Active Baths
Explore anomalous transport of tracers in active baths, focusing on long-time dynamics, ratchet effects, and unique friction properties in low-dimensional systems.
Entropy Production Fluctuations Encode Collective Behavior in Active Matter
Explore entropy production fluctuations in active matter systems, their connection to collective behavior, and methods to control dissipation and phase transitions.
Large Deviations of Time-Integrated Quantities in Active and Passive Matter
Explore large deviations in particle movement models, analyzing entropy production and dynamical activity. Discover various phase transitions and their implications for rate function scaling.
Phase Transitions and Self-Assembly in Active Matter
Explore phase transitions and self-assembly in active matter systems, from bird flocks to nanorobots. Analyze statistical models, emergent behaviors, and out-of-equilibrium dynamics in collective motion phenomena.
Yielding in Colloidal Systems Far-From-Equilibrium: From Gels to Active Matter
Explore yielding in colloidal systems, from depletion gels to active colloids. Discover microscopic mechanisms behind counterintuitive phenomena and altered yielding under extreme conditions.
Light Production and Adaptive Morphodynamics in an Active Biological System
Explore single-cell bioluminescence, bioluminescent breaking waves, and adaptive photosynthetic material morphing. Discover how cells use metamaterial properties for efficient environmental adaptation.
Dynamics of Active Particles at High Densities
Explore the dynamics of active particles at high densities in this advanced physics lecture by Thomas Voigtmann from the ESI's thematic programme.
Phase Transitions in Active Matter
Explore phase transitions in active matter systems, examining their unique behaviors and emergent properties in non-equilibrium conditions.