The article explores the impact of wearable exoskeletons on human locomotion. It dives into the analysis of ground reaction forces and muscle activation patterns, illustrating how the implementation of exoskeleton technology can improve mobility while reducing user exertion. Detailed evaluations include tracking individual adaptation strategies, performance analysis, and interaction portrait analysis, revealing significant findings about the human-exoskeleton interaction and its implications for rehabilitation and mobility enhancement in diverse populations.
In this study, we analyze the effectiveness of wearable exoskeletons by examining human adaptation strategies and performance metrics to enhance mobility and reduce exertion.
Ground reaction forces and muscle activation patterns were critically assessed, revealing how exoskeleton-assisted walking influences human biomechanics and interaction with the device.
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