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

To investigate how multiple object tracking abilities (NeuroTracker) may enhance strategies for maintaining spatial awareness and optimal player performance in soccer. Additionally, to examine the relationship between aerobic capacity and multiple object tracking capacity.

7 competitive female soccer players completed a 90-minute intermittent soccer performance test (iSPT) on a Curve™ non-motorized treadmill (cNMT) with monitoring of VO2max. This involved six individualized running, jogging or walking speeds, and a half-time period, to simulate demands in soccer competition. NeuroTracker baselines were completed three times during each half of the iSPT.

The fatigue associated with 90 minutes of soccer specific running negatively influenced running performance during the second half. However, increased aerobic capacity appears to be associated with an attenuation of cognitive decline during 90-minutes of soccer specific running. Results of this study indicate the importance of aerobic capacity on maintaining spatial awareness during a match.

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 investigate if comprehensive physical and cognitiveassessments can help improve the competitive performance of elite mountainsrunners.

‍

7 male international-standard mountain runners undertook a battery of physiological and biological tests (blood and urine biochemistry, VO2Max, EKG), along with a NeuroTracker baseline assessment, both at the beginning and end of a competitive season. Systematized medical analyses of the initial data was used to tailor each athlete's ongoing performance programs. In addition, the athletes undertook a NeuroTracker training intervention of 42 sessions across the competitive season. The same post-season battery of assessments along with competition results were analyzed to the determine effects of the adapted training programs.

All athletes' race results improved over previous years' performances. Moderate post-season improvements were seen across the physiological and biological tests from the adapted performance programs. NeuroTracker post-season baselines also improved dramatically, with scores increasing by +75% over pre-season baselines. The researchers concluded the NeuroTracker intervention demonstrated that perceptual–cognitive skills were perfectly trainable and could improve sports performance.

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.

The purpose of this study was to determine the relationship between visual tracking speed (NeuroTracker) and reaction time on basketball specific measures of performance.

12 professional NBA basketball players (Orlando Magic) were tested with a 1-session NeuroTracker baseline (6-mins), reaction time assessment, and the were results compared to competitive performance metric across an NBA season. Competition data analysis focused on Assists, Turnovers, Assist-to-turnover ratio, and Steals.

Finding show that relationships between NeuroTracker baselines were most strongly correlatedwith Assist-to-turnover ratio, and Turnovers. Backcourt players were more likely to outperform frontcourt players in AST and accordingly very likely to achieve higher NeuroTracker performance. Reaction time was not related to any of the basketball-specific performance measures. Overall a single NeuroTracker session baselines showed significant correlation to the NBA players’ ability to see and respond to various stimuli on the basketball court in ways that resulted in better performance.

The purpose of this study was to investigate the relationship between the effects of 4-weeks of NeuroTracker training on in-game soccer performance measures.

13 NCAA Division I soccer players were split into trained and control groups. Both groups completed a NeuroTracker baseline. The trained group then completed 10 NeuroTracker training sessions (60 minutes) over a 4-week period. Soccer performance metrics were obtained from WyScout where 2 game averages were examined to compare pre-post-NT performance.

Data analysis revealed a moderate improvement of the trained group over the control group in passing accuracy, a 8.5% increase post-training, versus a 3.5% increase. Small non-significant improvements were also observed for successful actions and short+medium passes for the NeuroTracker trained group.

‍

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.

To to determine if NeuroTracker training could affect off-the-block reaction times, by improving selection attention in university athlete swimmers.

15 male and female varsity swimmers were divided into active and control groups. The active group completed a training intervention of 10 NeuroTracker sessions, controls did no training. Pre and post training the participants were assessed 3 times on for off-the-block reaction times using the Ares Omega Timing System.

The control group showed a moderate improvement in reaction time, however the NeuroTracker trained group showed large improvement in reaction time (-11%). This pilot study indicates that selective attention may be a critical factor in reaction time performance, and that a short intervention of NeuroTracker training can significantly improve reaction times.

‍

To assess how maturity status, sport training background, and stereopsis (depth perception) influence perceptual-cognitive performance across childhood and adolescence using a 3D multiple object tracking (3D-MOT) task.

Youth participants spanning pre-adolescent through adolescent ages completed 3D-MOT assessments. Biological maturity was estimated via standard anthropometric indices, training background was documented, and stereopsis was measured using clinical depth perception tests. Associations between these factors and 3D-MOT performance were analyzed.

Dynamic visual tracking performance increased with maturational status and was higher among participants with structured training backgrounds. Better stereopsis was independently associated with stronger 3D-MOT performance. These findings indicate that perceptual-cognitive capacity as measured by 3D-MOT is influenced by both biological development and visual depth processing, supporting interpretations of developmental progression in adolescent perceptual-cognitive skills.