Decoding the neuromuscular mechanisms of locomotor energetics across scales (2027-2030)
Abstract
Movement is our most prized possession. This project aims to decode the neuromuscular mechanisms that govern the energetic cost of movement across structural, spatial, and temporal scales. Via integrating experiments, models, and bio-inspired devices, the project expects to generate new knowledge of how neural control, muscle¿tendon structure, and body size interact to shape locomotor efficiency across species and the human lifespan. Expected outcomes include new energetic models to predict energy use and bio-inspired assistive devices to improve movement efficiency. This will benefit science, industry, and society by driving innovations that enhance human performance, restore mobility, and inspire next-generation wearable technologies.
