Victoria A. Webster‐Wood

This study investigates how forces from bending structures scale with size and geometry, showing differences from spring-like structures and implications for biomechanics.

The paper develops a pipeline to predict macroscopic axon network topology from microscopic kinematics in cortical neurospheres using a biased random walk model.

This paper introduces a biohybrid robot system using conductive fibers for low-power actuation, sensing, and closed-loop control, achieving autonomous locomotion and reduced muscle fatigue.

This paper shows how mechanical reconfiguration in the Aplysia buccal mass enables different protraction behaviors by altering muscle mechanics and shape.

This study develops a suspended compliant skeleton to enhance muscle maturation and enables modular assembly of biohybrid actuators with high-force output and repairability.

The paper introduces AggreBots, a platform for creating designer motility patterns in multicellular tissues by spatially controlling the aggregation of epithelial spheroids, achieving greater motility than traditional CiliaBots.

This study evaluates six 3D-printable resins for biohybrid muscle actuators, finding that Asiga DentaGUIDE and Formlabs Silicone 40A show minimal cytotoxicity and mechanical degradation.

The paper introduces a neuromechanical model of Aplysia feeding that integrates neural and biomechanical components to better simulate feeding behaviors.