
Explore energy minimization in liquid crystals through probability density, tensor averages, and molecular orientation theories with Sir John Ball.

Explore active matter systems, focusing on topology in biology, active turbulence, and cell division. Learn about liquid crystal hydrodynamics, topological defects, and confinement effects in active systems.

Explore the fascinating journey of liquid crystals from their discovery in carrots to revolutionizing flat screen technology. Uncover the scientific breakthroughs and key players behind this transformative material.

Comprehensive exploration of liquid crystal properties, phases, and applications in materials science, focusing on advanced concepts and recent developments in the field.

Explores how motor protein arrangement on cargo surfaces affects collective transport in cells, examining factors influencing efficiency and coordination in intracellular movement.

Explore fundamental aspects of liquid crystals, including their unique properties, classifications, and applications in various fields of science and technology.

Explore the intersection of Brownian colloids and structured light, examining current research and future directions in this fascinating field of soft matter physics.

Explore the fascinating light-reflecting properties of the Chrysina gloriosa scarab beetle, uncovering nature's ingenious optical adaptations and their potential applications in material design.

Explore stochastic thermodynamics through experiments, tracing its history and future prospects. Gain insights into this interdisciplinary field's applications in soft matter physics and complex systems.

Explore innovative polymer design strategies for efficient gas separation, focusing on material properties and molecular interactions to enhance selectivity and permeability in industrial applications.

Explore symmetry-breaking in sheet polymers with David Nelson, delving into fundamental concepts and their applications in soft and living matter physics.

Explore the physics of fast fracture through slow-motion analysis, uncovering the mechanisms behind material failure and breakage in various systems.

Explore turbulence in living fluids and its impact on various states of matter. Gain insights into the fascinating intersection of physics, biology, and fluid dynamics in this engaging lecture.

Explore ferronematics and living liquid crystals, focusing on their unique properties and behavior when combined with inclusions. Learn about cutting-edge research in soft matter physics.

Explores dynamic instability in material fracture and sliding, examining singular behavior and its implications for understanding how things break and move under stress.

Explore the fascinating journey of liquid crystals from their discovery in carrots to their application in flat screens, revealing their impact on technology and daily life.

Explore inertial and active caustics in fluid dynamics, focusing on fundamental concepts and applications in soft and living matter physics.

Explores defect emission and absorption in liquid crystals on conical surfaces, focusing on geometric effects and topological constraints in soft matter physics.

Explore two-dimensional crystals, their unique properties, and applications in materials science. Gain insights into cutting-edge research and potential future developments in this fascinating field.

Explore cell-based modeling connecting single-cell mechanics to tissue-level nematic and hydrodynamic properties, examining instabilities, flows, and defects in active matter systems.

Analyse mathématique du mouvement des micro-nageurs dans les cristaux liquides, établissant l'existence d'états stables et dérivant un modèle homogénéisé pour la nage collective.