From cytoskeletal filaments to tissue morphing, flocking, and disease spread โ collective dynamics across scales of life.
From cytoskeletal filaments to fish schools, living matter routinely produces coordinated, adaptive behavior without central control. This workshop brings together physicists, biologists, ecologists, and neuroscientists who study how local interactions between many simple units โ cells, organisms, neurons โ give rise to robust collective phenomena at the scale above them.
Over three days of talks, posters, and open discussion sessions, we'll ask what unifying principles, if any, connect a slime mold solving a maze, a starling murmuration evading a hawk, and a cortical network encoding a decision.
Six threads run through the program, spanning wet-lab biology, field ecology, and theoretical physics.
Self-propelled particles, flocking transitions, and the statistical physics of collective motion.
How cell collectives build reproducible tissue-scale structure from local signaling rules.
Division of labor, stigmergy, and decision-making in ant, bee, and termite colonies.
Coordinated activity across neurons as a collective computation problem.
Epidemics, information cascades, and opinion dynamics on networks of interacting agents.
Data-driven models for inferring interaction rules from collective trajectories.
A confirmed list will grow as the program is finalized.




























Registration is open to researchers, graduate, undergraduate, and master's students across physics, chemistry, mathematics, biology, engineering, and medical sciences.