Can Whole-Body Electromyostimulation Replicate the Cognitive-Motor Demands of Coordinative Sports? A Rationale for Reactive Light-Based Dual-Task Protocols
DOI:
https://doi.org/10.63750/y39gpq11Keywords:
cognitive-motor training, dual-task, reactive agility, executive function, lifespan training, whole-body electromyostimulationAbstract
Sports that pair motor execution with real-time decision-making — racquet sports, martial arts, exergaming — appear to yield stronger cognitive benefits than purely repetitive exercise, plausibly through neuroplasticity, BDNF release, and myokine signaling. Whole-body electromyostimulation (WB-EMS), now widespread in fitness and rehabilitation practice, has been studied almost exclusively for motor and body-composition outcomes: to date, only one randomized controlled trial has directly assessed its cognitive effects, alongside a handful of studies linking WB-EMS to neurotrophic biomarkers in Parkinson's disease. This conceptual paper proposes a training model integrating reactive light systems (e.g., FITLIGHT, BlazePod) into the pause phase of WB-EMS protocols, hypothesizing that unpredictable visual-decisional cues could reproduce the cognitive-motor demands typical of coordinative sports. Unlike prior WB-EMS research, largely confined to older or clinical samples, this rationale is framed as potentially lifespan-wide — relevant both to frail older adults who cannot access coordinative sports and to active adults seeking added cognitive stimulus within strength training. We discuss the model's theoretical basis, practical implementation, and current limitations, chief among them the absence of direct trials on this specific combination, and outline directions for applied validation.
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