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This study investigated the effects of a simulated game-situation cognitive load (NeuroTracker) on lower limb biomechanics, using a landing task relevant to straining of the Anterior cruciate ligament (ACL). ACL injuries are known to be one of the most sports common injuries, and occurrence has been linked to cognitive factors.

7 college level healthy athletes (soccer, volleyball, football) performed 16 single-leg landing trials involving a jump forward and a lateral jump to the opposing leg. These movements were measured via force plates and motion capture of the legs and pelvis using 36 markers. The NeuroTracker task was assigned randomly to half of the trials (dual-task procedure), with jumps performed during the tracking phase.

While NeuroTracking hip and/or knee kinematics measurements were significantly different for all participants. The largest change was found with knee abduction angle, known to be most associated to ACL injury. Of the 7 participants, 4 showed biomechanical changes from the added NeuroTracker task that revealed increased ACL strain associated with ACL injury. Based on the preliminary findings, the researchers hypothesize that a NeuroTracker training intervention may reduce risk on of non-contact ACL injury, and will perform a larger study with more detailed biomechanical analysis.

To examine whether home-based NeuroTrackerX training improves cognitive performance and modulates brain activity in university-level soccer players.

Twenty-nine male university soccer players were assigned to either an NeuroTracker training group (30 home-based sessions over 9 weeks) or a control group continuing regular activities. Pre- and post-intervention assessments included NeuroTracker performance (3D-MOT), 2-back and 3-back working memory tasks, and EEG recordings (Fz) during n-back task performance.

The NeuroTracker group showed a significant increase in NeuroTracker scores post-training (p < .001), while the control group did not. Performance improved to approximately 128–130% of baseline after ~30 sessions, confirming effective learning in a home-based self-training format.

A significant improvement was observed in 2-back accuracy (p = .045) in the NeuroTracker group only, suggesting transfer to working memory and attentional updating under moderate load. No significant improvements were observed in the more demanding 3-back condition. Both groups responded faster at post-test, likely reflecting practice effects rather than training-specific changes.

During the 2-back task, alpha-band power (Fz) increased significantly post-training in the NeuroTracker group (p < .001). The authors interpret the alpha increase as reflecting improved attentional regulation and neural efficiency (inhibitory gating).

To investigate the ‘selfish brain hypothesis’, which suggests the brain prioritizes its own glucose needs over those of the peripheral organs such as skeletal muscle, using individual and dual-task assessments with NeuroTracker and exercise on a cycle ergometer.

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32 participants were randomly assigned to a no priority, cognitive priority (focus on NeuroTracker task), or physical priority (focus on physical task) group. NeuroTracker and a cycle ergometer were used to measure cognition and physical performance, respectively. Participants completed 5 assessments: 2 cognitive, 1 predicted VO2 max, and 1 dual task. During the dual task participants completed 3 NeuroTracker sessions, while cycling on a cycle ergometer. The cycle ergometer was modified to remove demands on balance, isolating aerobic demands.

Results revealed that the physical priority group had significantly higher cycle ergometer performance compared to the cognitive priority group. However, overall physical performance remained relatively stable throughout the physical and dual task assessments. All groups experienced improvements in their visual tracking speed scores as they progressed through the study. No evidence was found to support the selfish brain hypothesis during dual task performance, in contrast results may indicate an arousal effect from physical exercise, heightening NeuroTracker performance compared to single task performance.

To determine if variance in hydration status would be associated with cognitive performance, as assessed by NeuroTracker.

121 participants performed 15 NeuroTracker sessions across 10 days of visits to the laboratory. On the days of training, recent fluid intake, urine color (Urine color scale, UC), and body water (BIA) were documented.

Individuals with average urine color indicating good hydration performed significantly worse on NeuroTracker than those with a borderline dehydrated indicator, as based on urine color. Participants with no recent beverage consumption performed significantly better than those who had recently consumed water, tea, coffee , and milk. The researchers suggested that optimal hydration may not occur at the highest values of the urine color scale possibly due to moderate hyponatremia and hemodilution that could impact NeuroTracker performance.

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To examine the effects of different rehydration strategies on cognitive performance under the effects of physical fatigue.

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12 male endurance-trained runners (av. age: 23. years) were tasked with running on a treadmill at 70% of their predetermined VO2max for 1 h followed by running at 90% of VO2max until exhaustion on four separate days. On each day different hydration modalities were given (no hydration, electrolyte drink, electrolyte drink with a low dose of Sustamine, electrolyte drink with a high dose of Sustamine), drinking 250 mL every 15 min. Before and after each hour run, cognitive function (NeuroTracker) and reaction tests were administered.

Results showed that physical reaction time was faster for the low dose trial than the high dose trial. Analysis of lower body quickness indicates that performance in both the low and high dose trials were likely improved in comparison to the no hydration trial. NeuroTracker results indicated a possible greater performance for dehydration and low dose compared to only the electrolyte drink, while there was a likely greater performance in multiple object tracking for the high dose trial compared to consumption of the electrolyte drink only.

To examine the effects of 14-days ATP supplementation (adenosine 5′-triphosphate) on NeuroTracker visual tracking speed, reaction time, mood and cognition in a double-blind crossover study.

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22 adults were randomized to either an active PeakATP® group or a placebo control group and supplemented for 14-days. They then tested on 3 minutes of maximum intensity cycling. Pre, immediately post, and 60-minutes post, all participants completed a NeuroTracker baseline, a visuomotor reaction test (Dynavision D2), a Profile of Mood States Questionnaire and a cognition assessment (ANAM). After another 14 days of no supplementation, the active and control groups were then reversed and the whole procedure was repeated.

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NeuroTracker results improved on the second testing procedure, however average differences between active and control groups were negligible. No significant interactions were found on the other assessments, apart from reaction time performance, which improved meaningfully with post ATP supplementation. The results suggest ATP may help decrease fatigue related effects from intense bouts of exercise, but not higher-level cognitive functions.

To examine the practical efficacy of cognitive enhancement interventions through a gold-standard template for assessing use of such tools, and to assess NeuroTracker evidence against the template for enhancing attention, working memory and visual information processing speed.

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To assess cognitive tools and NeuroTracker specifically against the following gold-standard criteria and with qEEG findings on changes in neuroelectric brain activity: 1. Robust transfer effects, 2. No Side Effects or Risk of Toxicity, 3. Minimal time and monetary investment, 4) Lasting effects, 5) No ethical issues, 6) Can be used in combination with other interventions, 7) Can be applied to any population.

3-hours of training over 5-weeks with NeuroTracker demonstrated robust effects on attention, working memory, and visual information processing speed as measured by neuropsychological tests. Corresponding changes measured by qEEG were also corroborated these intervention effects. NeuroTracker was concluded to meet the gold standard criteria in points 1, 2, 3, and 5, with some evidence to support the other points, but further research needed.

To evaluate whether 30 days of dark sweet cherry (DSC) consumption improves executive function, NeuroTracker 3D-MOT performance, neuropeptide levels, and circadian rhythm biomarkers in adults with obesity.

Method
• Single-blind randomized controlled trial
• 40 adults with BMI 30–40 kg/m²
• DSC drink (200 mL twice daily) vs isocaloric placebo for 30 days
• Executive function assessed using TMT, Digit Span (forward/backward), and DSST
• Visual Cognitive Performance (VCP) assessed via 15 NeuroTracker CORE sessions
• Blood biomarkers: neurotensin, substance P, oxytocin, cortisol, melatonin

NeuroTracker performance was evaluated using speed threshold changes across baseline (sessions 1–3) and final (sessions 13–15) blocks.

Executive Function
• Significant improvements in Digit Span Forward (p = 0.006) and Backward (p = 0.01) in the DSC group
• No between-group differences in TMT or DSST
• Benefits were more pronounced in females and higher BMI subgroup

NeuroTracker (VCP)
• Both cherry and placebo groups improved significantly over 15 sessions (practice effect)
• No significant between-group differences
• Mean change (Δ) VCP: Cherry 0.26 vs Placebo 0.25 (p = 0.94)

Biomarkers
• Neurotensin increased significantly in placebo group only
• Melatonin increased significantly in placebo group only
• No significant treatment effects on cortisol or oxytocin

To examine the transferability of perceptual-cognitive training using NeuroTracker to on-field soccer performance parameters.

22 NCAA Division I women’s soccer players (ages of 18-25) were split into trained and control groups. After baseline testing on NeuroTracker, the experimental group completed 10 NeuroTracker sessions (60-mins) over four-weeks. Game performance data, successful action, passing percentage, and short-medium range passing percentage, was collected utilizing Wyscout video analysis software during a competitive season.

NeuroTracker visual tracking speeds for the trained group significantly increased by 68% from pre-training baseline, while the control group had a 12% increase from baseline testing effects. Analysis showed no significant effects of training over the control group for on performance metrics, except for average in game passing-accuracy, which increased significantly over the control group.