J. E. F. Green

This paper introduces a continuum model that incorporates organism and environmental heterogeneity to study collective behavior, applying it to locust foraging and finding that hunger drives individuals to group edges and affects group dispersal.

The paper develops a mathematical model to study gel contraction induced by cells, incorporating osmotic effects and cell traction forces in a one-dimensional setup.

The paper develops a thin-film model for microbial biofilm growth, showing that expansion speed depends on cell proliferation, nutrient availability, and adhesion properties.

This paper models locust foraging behavior to show that optimal food width promotes hopper band formation and that gregariousness enhances foraging efficiency when food is scarce.