Wet, Active Solids - Physics and Physiology by Suraj Shankar
Explore the physics and physiology of wet, active solids, examining their unique properties and applications in biological systems and nonequilibrium dynamics.
Confined Active Matter by Sriram Ramaswamy
Explore the fascinating world of active matter in complex environments, from biofilaments to flying birds. Learn about cutting-edge research and fundamental concepts from renowned experts.
Low Reynolds Number Active Suspensions - An Inertial Turbulence Approach by Samriddhi Sankar Ray
Explore inertial turbulence in low Reynolds number active suspensions, examining fundamental concepts and innovative approaches in this cutting-edge field of fluid dynamics and active matter.
Probing the Dynamics of Chemically Active Polymers Using Multi-Particle by Snigdha Thakur
Explore the dynamics of chemically active polymers through multi-particle analysis. Gain insights into active matter behavior in complex environments and learn about cutting-edge experimental and theoretical approaches.
Stochasticity in Epithelial Tissues by Medhavi Viswakarma
Explore stochasticity in epithelial tissues, examining random processes and their impact on tissue behavior, structure, and function. Gain insights into the complex dynamics of cellular systems.
The Vicsek Model - An Update and the Fragility of Its Ordered Phases to Quenched
Explores the Vicsek model in active matter physics, focusing on ordered phase fragility under quenched disorder. Updates on recent developments and implications for collective behavior in complex environments.
The Allure of Active Matter - Lecture 1
Explore the fascinating world of active matter with renowned physicist Sriram Ramaswamy. Discover key concepts, recent developments, and future directions in this cutting-edge field of nonequilibrium physics.
Contractile Microtubules Generate Active Membranes and Foams by Zvonimir Dogic
Explore how contractile microtubules create dynamic membranes and foams, revealing insights into active matter and its applications in biological systems and beyond.
Bridging Microscopic Cell Dynamics to Nematohydrodynamics of Cell Monolayers
Explore cell-based modeling connecting single-cell mechanics to tissue-level nematic and hydrodynamic properties, examining instabilities, flows, and defects in active matter systems.
Phase Separation in Active Brownian Particles
Explore models of active matter systems, focusing on motility-induced phase separation in self-propelled particles and the resulting macroscopic PDEs.
Directions in the Hydrodynamics of Active Matter
Explore the collective properties of active systems, focusing on inertia, chirality, and non-reciprocality in self-driven materials that defy equilibrium rules.
A Synchronization Viewpoint on Active Matter Results
Explore active matter models through a synchronization lens, focusing on 2D dry aligning systems and the impact of chirality and spatial disorder on phase synchronization.
Dynamic Features of Topological Defects in Active Liquid Crystals
Explore dynamic features of topological defects in active liquid crystals, focusing on controlling defect dynamics and hydrodynamic flows for potential applications in material transport and information transmission.
Theoretical Foundations of Active Matter: Lessons from Ideal Microscopic Models - Class 3
Explore theoretical foundations of active matter through ideal microscopic models, gaining insights into complex systems and their behaviors.
Computational Modeling of Active Systems - Class 4
Explore computational modeling techniques for active systems, focusing on advanced concepts and practical applications in the field of active matter.
Physics of Flocking - Class 3
Explore the physics of flocking behavior in active matter systems, focusing on advanced concepts and mathematical models for collective motion phenomena.
From Active Nematics to Mechanobiology - Class 4
Explore active nematics and mechanobiology with Julia M Yeomans, delving into cutting-edge research on active matter and its applications in biological systems.
Computational Modeling of Active Systems - Class 3
Explore computational modeling techniques for active systems, focusing on advanced concepts and practical applications in the field of active matter.
Theoretical Foundations of Active Matter: Lessons from Ideal Microscopic Models - Class 4
Explore theoretical foundations of active matter through ideal microscopic models, gaining insights into complex systems and their behaviors.
Discovering Dynamic Laws from Observations: The Case of Self-Propelled Particles
Explore machine learning techniques for uncovering forces in active matter systems, from cellular to animal scales. Learn to extract local dynamics crucial for understanding collective phenomena.
Transport Properties in Intermittent Active Matter
Explore optimal strategies for maximizing diffusivity in intermittent active motion across scales, from bacteria to sheep and artificial colloidal systems.