
Explore firefly synchronization as a model for complex network dynamics, from simple systems to mobile oscillators in this insightful presentation.

Explore ZBrush techniques for creating detailed 3D scientific animations, from organ anatomy to cellular structures. Learn Newt Studios' workflow for visualizing complex biological systems in the healthcare and biotech industries.

Explore phase transitions across physics and computer science, from water states to combinatorial optimization and information theory, revealing their universal nature in complex systems.

Explore how non-equilibrium dynamics enhance memory and information processing in biological systems, from neuronal circuits to immune responses, challenging traditional equilibrium-based paradigms.

Explore cell and tissue membranes and interfaces in this theoretical physics lecture, bridging biological concepts with physical principles for a deeper understanding of cellular structures.

Explore how non-equilibrium dynamics enhance memory and information processing in biological systems, from neuronal circuits to immune responses, challenging traditional equilibrium-based paradigms.

Explore second-quantization of many-body dispersion formalism for modeling large-scale systems, enhancing computational efficiency and enabling analysis of interactions with surrounding environments.

Evolutionary biologist Sean B Carroll explores simple rules governing all life on Earth, from cellular to ecosystem levels, revealing insights into nature's fundamental principles and their applications.

Explore collective properties of motor proteins, focusing on transport mechanisms and driving forces in biological systems. Gain insights into the fascinating world of molecular motors.

Explore morphogenetic decoding of positional information in biological systems, examining how cells interpret spatial cues during development and tissue formation.

Explore decision-making and learning in life sciences, focusing on fundamental concepts and their applications in biological systems and processes.

Exploring nature-inspired super-wettability in materials: from lotus leaves to spider silk. Reveals fundamental insights and practical applications of bio-inspired micro/nanostructured interfaces with special wettability.

Explore the fundamental building blocks of life: proteins and amino acids. Gain insights into their structure, function, and significance in biological processes.

Explores active caustics in nonequilibrium systems, discussing recent progress and applications in diverse fields like granular systems, control theory, and biological processes.

Explore collective motion in finite flocks, examining dynamics and patterns of group behavior in active matter systems like bird flocks and fish schools.

Explores active fluctuations and microphase separation in cell nuclei, discussing recent developments in active matter research and its applications to biological systems.

Explores extreme deformations in active crystals, discussing novel nonequilibrium systems with energy throughput at individual unit level. Highlights applications in biological processes and collective behavior.

Explore turbulence and multifractality in active fluid models, examining complex dynamics and patterns in non-equilibrium systems with energy dissipation at the individual unit level.

Explores yielding behavior in active amorphous solids, examining nonequilibrium dynamics and energy dissipation at the individual unit level within the context of active matter systems.

Explores enhanced order in two-temperature models of scalar activity, discussing recent progress and applications in active matter systems like cellular dynamics and collective animal behavior.

Explore the energetic constraints and limits of cellular processes, focusing on how cells harness and partition energy for various biological functions and their impact on cellular operations.