
Explore the mechanical properties of epithelial monolayers, focusing on their ability to withstand stress and rupture. Gain insights into tissue strength, strain stiffening, and the role of keratin filaments.

Explore single-cell bioluminescence, bioluminescent breaking waves, and adaptive photosynthetic material morphing. Discover how cells use metamaterial properties for efficient environmental adaptation.

Explore the emergence of complex structures in non-equilibrium systems through microtubule-based active fluids and passive actin filaments, revealing self-organizing processes across multiple scales.

Explore cell tissue dynamics using differential dynamic microscopy in reciprocal space, uncovering non-equilibrium processes in physics and biology.

Explore collective behaviors in neuronal networks influenced by electric and magnetic fields, examining dynamics and implications for complex network processes.

Explore universal biology and Earth's early life with Dr. Nigel Goldenfeld. Delve into astrobiology concepts, focusing on the first billion years of life's evolution and its implications for universal biological principles.

Explore data-driven methods for deciphering living systems' dynamics, focusing on transforming trajectories into models for deeper biological insights.

Explore cutting-edge research in soft and biological matter through flash talks by international experts. Gain insights into diverse topics and latest advancements in the field.

Explore nonlinear dynamics in neuronal models and their application to bird song, focusing on advanced concepts and real-world implications in neuroscience.

Explore tissue growth, repair, and morphogenesis processes with expert insights on cellular mechanisms and developmental biology.

Explore advanced concepts in collective cell migration, focusing on theoretical models and experimental observations in tissue dynamics.

Explore advanced active matter models in mechanobiology, focusing on cutting-edge research and applications in biological systems.

Explore collective cell migration mechanisms and dynamics in this comprehensive lecture by E. Hannezo, delving into cutting-edge research and theoretical frameworks.

Explore cell contractility mechanisms and their impact on cellular adhesion and behavior. Gain insights into advanced biophysical concepts and research findings.

Explore advanced active matter models in mechanobiology, focusing on cutting-edge research and applications in biological systems.

Explore emergent mechanical properties of biological tissues, focusing on advanced concepts and their applications in understanding complex biological systems.

Explore active matter models in mechanobiology, focusing on their applications and implications for understanding biological systems and processes.

Explore emergent mechanical properties of biological tissues with Lisa M. Manning, delving into advanced concepts and cutting-edge research findings.

Explore advanced concepts of cell contractility, focusing on adherent cells and their mechanical properties in biological systems.

Explore emergent mechanical properties of biological tissues with M. Lisa Manning in this comprehensive lecture.

Explore active contractility in adherent cells, focusing on key concepts and their implications for cellular mechanics and behavior.