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To critically review emerging digital sports vision training (SVT) technologies, classify them into coherent categories, and evaluate the strength of empirical evidence supporting performance enhancement claims.

The review proposes a structured taxonomy dividing digital sports vision training into component skill training (e.g., perceptual–cognitive and sensorimotor tools) and naturalistic simulation-based approaches (e.g., stroboscopic and VR training), assessing evidence for each.

Perceptual–cognitive systems such as 3D-MOT demonstrate reliable sensitivity to athletic expertise and show emerging, though still developing, evidence for transfer to sport-specific performance metrics.

Intermittent visual occlusion training enhances motion sensitivity, anticipation, and visuomotor control under constrained conditions, with preliminary but variable evidence of sport performance benefits.

Eye-tracking research shows that training longer task-relevant fixations (Quiet Eye) can measurably improve accuracy and consistency in precision sports tasks.

Virtual reality platforms offer immersive, scenario-based training opportunities, but empirical validation of sustained real-world transfer remains limited relative to their growing adoption.

To synthesize evidence from studies investigating perceptual-cognitive training in interactive sports settings, assessing both practice architectures and transfer effects to sport performance.

Systematic literature review of peer-reviewed studies applying perceptual-cognitive training (e.g., video-based tasks, dynamic attention tasks, MOT paradigms) to athletes, with outcomes categorized by level of transfer (near, intermediate, far).

Training programs consistently produce improvements on trained tasks (near transfer), but evidence for broader performance transfer is very limited due to lack of studies. Variability in task specificity, outcome metrics, and study design complicates generalizability. However, one NeuroTracker study was deemed to provide reliable evidence of far transfer to elite sports performance. The review emphasizes that future research should focus on critical factors to assure transfer of perceptual–cognitive training interventions.

To assess the extent to which action video game players perform better than non-gamers on cognitive functions measured by NeuroTracker and neuropsychological assessments.

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14 professional and 16 amateur action video game players completed a battery of 7 standardized neuropsychological assessments, a manual dexterity test, and 14 NeuroTracker sessions. Statistical analysis techniques were used to compare cognitive differences.

Analysis revealed that high performance in professional action video games players is associated with enhanced abilities in visual spatial attention, visual and auditory short-term memory, and selective and sustained attention. No significant differences between professionals and amateurs were evident on tasks evaluating executive functions, perceptual manipulation, or manual dexterity. Although both groups displayed a similar learning capacity to improve at NeuroTracker over 90-mins of training, professionals exhibited a distinct performance advantage throughout the intervention. The results overall suggest that elite action video gamers have superior attentional control.

To investigate if older populations with clinically diagnosed cognitive impairments associated with fine-motor skills difficulties could measurably benefit from a short cognitive training intervention.

38 elderly participants, half with mild cognitive impairment (MCI) and half with mild dementia (MD) completed a total of 36 sessions of NeuroTracker training. The Montreal Cognitive Assessment (MoCA) test was used to assess the baseline cognitive status, and two batteries of manual motor skills assessments completed before and after the training program.

The results showed clear and significant post-training improvements in both manual dexterity tests. Analysis indicated that only 90-minutes of NeuroTracker training was needed to achieve these benefits with these populations. The researchers concluded that this type of intervention could have a broad impact on the aging population in terms of their daily quality of life.

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To investigate the influence of dietary intake and sleep of esports athletes on cognitive performance and learning capacities measured by NeuroTracker.

119 esports athletes completed a rigorous battery of assessments over an 8-10 day period. This included a comprehensive range of 8 self-assessment surveys, a record of diet, fluid intake and urine color, continuous biometric monitoring of heartrate and sleep quality, and 20 sessions of NeuroTracker distributed over the period.

Average sleep quality was found to be in the range of moderate to severe sleep disturbance and most participants did not meet USDA guidelines for numerous key nutrients, as well as exceeding recommendations for cholesterol, sodium, and saturated fat. NeuroTracker baselines improved on average by around 50% by the end of the 20 sessions (similar to elite athletes). Higher NeuroTracker performance was strongly correlated with better sleep and dietary habits, and specifically, consuming the recommended intake of protein was closely tied to increased learning rates.

To examine whether improvements in 3D-MOT performance transfer to objective in-game performance outcomes in competitive soccer players.

Youth soccer athletes completed a structured 3D-MOT training program across multiple sessions. Pre- and post-training NeuroTracker performance was measured, alongside objective game performance statistics collected during competitive play to evaluate potential transfer effects.

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While participants demonstrated significant improvements in 3D-MOT speed thresholds following training, no corresponding improvements were observed in match-based performance metrics. These findings suggest that gains in perceptual-cognitive tracking ability may not automatically translate to measurable in-game performance outcomes under competitive conditions.

This study measured the capacity of older participants to improve their tracking speed thresholds (NeuroTracker), to investigate if age related cognitive decline can be reversed with a training intervention known to be directly relevant to the effects of healthy aging.

20 healthy younger adults (mean age 24 years old) and 20 healthy older adults (mean age 67 years old) performed 15 NeuroTracker training sessions distributed over 5 weeks.

Both groups obtained benefit from training with a similar rate of progression. Though the older group started off at a significantly lower level than the younger group, they obtained speed thresholds that were similar to those of untrained younger adults by the end of the training program. Furthermore, towards the end of the training program the rate of learning appeared to have slowed for the younger group, yet the older group still showed a strong learning curve, suggesting greater improvements with continued training. In conclusion, although healthy older people show a significant age-related deficit in the NeuroTracker task, they respond strongly to training effects and demonstrate an ability to fully reverse age-related functional decline with a short intervention of NeuroTracker training.

This study sought to investigate the resource limits for dynamic visual attention across age development using NeuroTracker speed thresholds as a measure of attentional capacity.

21 participants were grouped by age: school-aged (6-12 years), adolescent (13-18 years), adult (19-30 years). Each group completed NeuroTracker baselines using speed threshold measurements at progressively increasing numbers of targets.

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For all groups, speed thresholds changed in a logarithmic way consistent with the relative increase in multiple object tracking demands. Attentional capacities for NeuroTracker were determined by age, with significantly lower multiple object tracking limits for school-aged individuals. The findings also suggested that the 3D stereo component of NeuroTracker is a critical enabling factor for processing greater attentional loads: school-aged individuals could track numbers of targets beyond the limits of 2D non-stereo (as established in previous studies). These findings suggest that NeuroTracker can be used for characterizing the development of resource allocation in attentional processes through the use of a measure that best approximates real-world conditions.

To evaluate perceptual cognitive abilities among male and female adolescents and determine if undiscovered gender differences in athletes’ perceptual cognitive abilities exist.

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40 nonathletes (20 boys and 20 girls) and 40 athletes (21 boys and 19 girls) aged 17-24 years old completed a short questionnaire about their sports practice. All participants then completed three NeuroTracker sessions.

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The findings confirm the superior perceptual cognitive abilities in young athletes relative to nonathletes. However, results also indicate differences in performance patterns between male and female athletes, with male athletes achieving the highest tracking speeds but female athletes showing faster adaptation to the task by the 3rd session. These results demonstrate that sports engagement and perceptual cognitive abilities are strongly related during adolescence and that this relationship seems more prevalent in athletes for this age group.