Broadly speaking, motor control is the science of directing how an object moves. We define a system's stability based on its reaction to disturbances: a stable system recovers its equilibrium over time, while an unstable system continues to drift away from its balanced state. By decoding the underlying mechanisms of motor control in aging and clinical patients, we strive to optimize functional movement and rehabilitation outcomes. 

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Motor learning refers to the process by which individuals acquire, refine, and retain new motor skills through practice and experience. It involves changes in the nervous system that enable an individual to perform movements more efficiently and accurately over time. Our research focuses on investigating the fundamental principles underlying motor learning theories. We aim to translate these insights into clinical applications that optimize movement acquisition and improve rehabilitation outcomes.

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Postural control involves the seamless integration of sensory and motor systems to keep us upright and balanced. Our lab goes beyond traditional theories by highlighting the "hidden" mechanisms of stability. We are particularly interested in the effects of the startle response on postural control and the vital, yet under-researched, vertical postural strategies. Our goal is to redefine the understanding of human stability, paving the way for innovative approaches in rehabilitation and movement science.

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Sports injuries and CNS disorders often disrupt the delicate balance of motor and postural control. Our research focuses on developing innovative training programs based on motor learning principles to restore and enhance movement. We also tackle the significant social issue of elderly falls, conducting research that supports preventive medicine and promotes longer, healthier lives....see more