Randall D. Beer

The paper investigates how activity-dependent homeostatic plasticity can maintain circuit-level properties in a computational model of the pyloric circuit.

The paper compares two dynamical models of behavioral switching in C. elegans locomotion, showing how different models can produce similar phenomena and clarifying their theoretical relationship.

This study investigates how signal reliability and forager motion influence saltatory movement patterns in pursuit of stationary targets using evolved model foragers.

The paper investigates whether multiple network rhythmic pattern generators in C. elegans can drive forward locomotion without pacemaker neurons or stretch-receptor feedback using a simulation model.

The paper develops a neuromechanical model of forward locomotion in C. elegans that integrates neuroanatomy, neurophysiology, and body mechanics to reproduce realistic movement patterns.