The Brain's Full Potential is Being Unlocked by Businesses Everywhere

To systematically evaluate the scientific evidence supporting NeuroTracker as a perceptual-cognitive training tool, examining both (1) whether it trains the cognitive functions claimed and (2) whether training transfers to other domains, particularly real-world performance.

NeuroTracker consistently produces improvements on the trained 3D-MOT task itself (robust task-specific learning). Near transfer evidence exists, but some study results are are inconsistent or limited by small samples or methodological weaknesses. Far transfer evidence is limited to only a small number of studies, with mixed outcomes—two of three far-transfer studies reported no significant effect. Methodological concerns of existing research include lack of preregistration, sample sizes, unmatched control groups, and inconsistent reporting of transfer outcomes. The authors also argue that the cognitive processes underlying 3D-MOT are complex and not fully aligned with some marketing claims.

This paper covers foundational concepts of NeuroTracker’s relevance to training of cognitive capacities deemed critical in sports performance, particularly in dynamic team-sports. It also contains a study investigating the effects of attentional loads in learning paradigms, with the aim of understanding optimal load conditions for training perceptual-cognitive ability.

‍

4 elite professional sports teams trained their athletes on NeuroTracker (15-30 sessions) during their competition seasons. An English Premier Team club, a National Hockey League team, and a European Rugby team were all trained in the standard sitting down position to isolate any influence from attentional mechanisms involved in posture control. Another NHL team performed the training in standing position, involving basic balance demands on attention.

Taking the statistical average for learning progression on NeuroTracker, the three professional sports teams training in sitting position showed near identical progression, with rapid early learning slowing down towards longer term but continued learning. The standing sports team showed much lower NeuroTracker scores, but more importantly slower overall learning progression, with a large magnitude of difference to the other teams. The findings clearly demonstrate the link between balance control mechanisms and perceptual-cognitive demands solicited by NeuroTracker training. This demonstrates that cognitive training loads need to be sensitively optimized to attentional thresholds in order to generate effective short and longer term learning adaptations.

‍

‍

To analyze the effectiveness of NeuroTracker training to improve sports vision and cognitive performance using a progressive single and dual-task training protocol.

37 elite water polo (13), taekwondo (12) and tennis elite athletes (12) completed 26 NeuroTracker sessions progressing from single-task training to progressively complex dual-task training. Pre and post training all athletes underwent a comprehensive battery of optometric vision assessments. Throughout the training program both athletes and their coaches completed frequent visual-analogue questionnaire assessments to assess changes in concentration, perception speed and peripheral vision performance.

‍

‍

Overall NeuroTracker learning rates were high. Although scores initially dropped on progressing to more complex dual-task motor-skills, performance recovered quickly to the level expected with single-task performance. This that dual-task training methods with NeuroTracker can efficiently consolidate new skills into using a progressive overload methodology. Post-training assessments revealed a statistically significant gains in most visual abilities, including static visual acuity, stereopsis, spatial contrast sensitivity, saccadic ocular movements, and visual selective attention. Transfer to related sports performance abilities was seen with both coach and athlete questionnaire assessments, with consistently significant improvements throughout the program. Although the athletes tended to rate their performance higher than coaches, their improvement ratings were close to identical.

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

‍

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.

The goal of this multi-year research project was to develop methods for assessing the efficacy of training (including live and simulated platforms) by validating measures of cognitive workload that characterize skill acquisition.

‍

10 evaluation pilots (100-300 flight hours of experience) were selected to perform low, medium and high difficulty flight manoeuvres in both a jet flight simulator and live jet flight (Aero Vodochody L-29 jet trainer) using experimental conditions. During flight ECG data (NeXus-4) and eye-tracking data (Dikablis) was collected. Flight performance was analysed for altitude, roll, and vertical speed errors, and cognitive workload was subjectively assessed (10-point Bedford Workload Scale). As a validated tool for evaluating perceptual-cognitive skills, NeuroTracker was selected as to measure spare cognitive capacity via extraneous load (Cognitive Load Theory). All pilots first completed home-based NeuroTracker consolidation training (15 Core sessions). NeuroTracker was integrated into the flight testbed. Low, medium and high difficulty flight manoeuvre tests were performed by all pilots, both without NeuroTracker, and while simultaneously performing NeuroTracker Core sessions.

‍

Compared to performing NeuroTracker alone, live and simulated flight across all manoeuvres, caused a drastic decrease in NeuroTracker speed thresholds (average of ~97%). This, perhaps for the first time, objectively demonstrated that jet flight involves very high intrinsic cognitive loads. Live flight resulted in lower NeuroTracker speed thresholds and physiological performance than simulated flight, with greater differences for higher difficulty maneuverers. This evidence suggests that physiological and cognitive loads are significantly heavier in live flight, supporting the theory that that brain dynamics differ in real-world environments compared to those of a laboratory.

To investigate NeuroTracker baselines could be predictive of driving performance across 3 simulated scenarios, to see if these measures could be predictive of driving risks.

115 drivers were divided into three age and experience groups: young inexperienced (18-21 years old), adult experienced (25-55 years old) and older adult (70-86 years old). Participants were tested for 2 hours across three different driving scenarios varying in mental workload (low, medium, high), using a highly sophisticated driving simulator. A total of 18 different metrics on driving behavior were evaluated and compared to NeuroTracker baseline scores.

Statistical analysis of NeuroTracker results and driving performance metric yielded significant correlations, including being predictive of driving speed, breaking speed, and reaction to dangerous events. Low NeuroTracker scores effectively predicted elevated risks of crashes. Lower NeuroTracker scores also correlated significantly with slower average driving speed for older adults, providing evidence towards the theory that driving more slowly is related to the cognitive effects of aging.

To investigate the feasibility of using a remote therapeutic cognitive intervention for brain injury survivors using an at-home training program.

20 older female and male adults were assessed for cognitive health status using a self-report questionnaire and the Mini-Mental State Examination (MMSE) and deemed cognitively healthy. The at-home participants were provided with NeuroTracker training and completed 20 training sessions over 5 weeks. Participant recruitment, retention, adherence, and experience were used as markers of feasibility. Individual session scores, overall improvement, and learning rates between groups was also assessed.

The remote intervention was found to have strong feasibility overall. This was supported by high recruitment and retention, 90% participant adherence, along with ease of use of the program. Differences in screen size and 3D technology showed no differences on cognitive benefits achieved from training, with significant improvements in task performance across the program, which was also equivalent to lab-based training. The researchers concluded that NeuroTracker provides a promising at-home option for cognitive training for cognitively healthy adults and brain injury survivors.

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.

To investigate if beef and beef-related nutrient intake can explain the variance in visual cognitive performance in young females.

52 college age women performed 15 NeuroTracker sessions over 15 days with normal eating habits, as a preliminary study. Then 80 college age women were randomized in an RCT study to either a daily beef or veggie patty and consumed 1 patty/day for 30 days, and assessed with NeuroTracker.

In the preliminary study, higher iron, cholesterol, choline, arginine and B vitamins levels were all significantly associated with higher NeuroTracker scores. In the RCT study, the beef group demonstrated higher average NeuroTracker scores. The researchers suggest that increased intake of beef associated nutrients may increase visual cognitive performance in college age women.