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About

Kyle Embry’s research sits at the intersection of biomechanics and robotic control, with a focus on understanding and enhancing human locomotion. His major contributions center on developing control systems for powered prostheses and exoskeletons that adapt seamlessly to continuously varying real-world conditions—such as changing speeds, inclines, and terrain transitions—rather than requiring separate tuning for each discrete task. His most-cited work, “Lower-limb kinematics and kinetics during continuously varying human locomotion” (147 citations), provides foundational data on how the body moves across walking, running, and stair climbing, while his phase-variable control paper (63 citations) translates that understanding into practical, adaptive prosthetic control. Embry has also advanced individualized gait prediction (34 citations) and demonstrated the real-world impact of a modular hip exoskeleton in reducing sedentary time among older adults (22 citations). Earlier work on modeling backlash and harmonic drive errors in robotic manipulators (11 citations) reflects his depth in mechatronics. Together, his research bridges rigorous biomechanical analysis with deployable robotic solutions, aiming to restore and augment mobility for individuals with lower-limb impairments.