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

To investigate if real-time Neurofeedback can enhance learning rates for NeuroTracker training.

40 healthy adults were assigned to four training groups (ten each), performing either:-

• Standard NeuroTracker training

• No training (control group)

• NeuroTracker with EEG-Neurofeedback

• NeuroTracker with sham Neurofeedback

EEG-Neurofeedback involved closed-loop feedback that automatically detects when a participant has lost track of their targets and immediately reindexes them.

The standard NeuroTracker group, control group and EEG-Neurofeedback groups started a similar level, higher than the sham Neurofeedback group. However the EEG-Neurofeedback showed superior learning rates over all other groups over the course of 10 training sessions. The results show that a closed-loop learning paradigm is highly effective at enhancing learning outcomes on the NeuroTracker task.

‍

To identify across ages, in younger males and females, and to compare, in younger males, the anthropometrics, athletic abilities and perceptual-cognitive skills associated with baseball pitcher's ball velocity.

‍

Male and female athletes completed a sociodemographic questionnaire followed by anthropometric, athletic ability, perceptual-cognitive skill and pitching velocity assessments. Athletes were categorized by their age categories (11U, 13U, 15U, 18U, 21U). To evaluate the athletes' anthropometrics, height and weight, BMI, waist circumference, arms segmental length and girth were measured. Athletic abilities were assessed using athletes' grip strength, upper body power, vertical jump height, sprint, change of direction, and dynamic balance. Perceptual-cognitive skills performance was assessed with NeuroTracker, and pitching performance assessment was completed using the athletes' average fastball velocity.

In male athletes across each age category all anthropometric, athletic ability and perceptual-cognitive skill factors were associated with pitching velocity with associations, with effects being stronger the older the age category. NeuroTracker baselines has some of the strongest associations to pitching velocity and athletic abilities across age categories.

To compare the efficacy of NeuroTracker training for concentration and game performance to conventional training.

‍

21 university basketball athletes were divided into a NeuroTracker training group (12 sessions) or a conventional training group. The Concentration Grid Test was used to measure concentration, and FIBA-Live Stats were collected to evaluate the game statistics and athlete performance, both pre- and post-training.

NeuroTracker training resulted in 42% greater improvement in post-training Concentration Grid Test results, compared to conventional training. No substantial improvements in game performance were found with either form of training.

To investigate how attentionally based performance and learning is affected when audio stimuli is present in athletic populations.

Twenty USPORT level football athletes (mean age = 20.5yrs) completed in 18 sessions of NeuroTracker Training. Ten athletes completed the training in a dark room with no external noise (had noise cancelling headphones). The other ten athletes completed the training in the same room but were exposed to a consistent simulated crowd noise.

No significant differences in NeuroTracker initial baselines were found between the two groups were found. However, after the 18 training sessions, the mean NeuroTracker score for the noise group was 2.07 (SD = 0.24). In contrast the no noise group averaged significantly slower at 1.77 (SD = 0.32). Although studies show that noise can inhibit attentional processing, this study indicates that presence of the simulated crowd noise may enhance the ecological validity of NeuroTracker training for athlete populations.

To evaluate the effects of a vision training program — including 3D multiple object tracking (3D-MOT) as implemented in NeuroTracker — on perceptual-cognitive performance in an athletic or high-performance context.

Participants completed baseline NeuroTracker assessments using the standard CORE program (three CORE sessions and one sustained attention session) to establish baseline dynamic tracking speed thresholds. The training protocol involved repeated 3D-MOT sessions embedded within a broader vision training regimen. Performance was assessed pre- and post-training.

Baseline assessments used the NeuroTracker CORE protocol to quantify tracking thresholds. Post-training increases in baseline tracking performance were observed, suggesting that repeated 3D-MOT exposure enhanced basic perceptual-cognitive tracking ability. However, the pilot nature of the study and limited transfer to broader functional outcomes indicate that while 3D-MOT improves task-specific performance, the broader utility for real-world or sport performance remains preliminary.

To analyze the repeated effect of stroboscopic vision training on perceptual-cognitive and anticipation skills in soccer players.

‍

28 male soccer players randomized into two groups: Stroboscopic vision training and control groups. The trained group completed 8-weeks of stroboscopic training. Pre post assessments were completed for both groups, which included NeuroTracker baselines and assessments decision-making and anticipation skills.

‍

Both groups improved by similar amounts in NeuroTracker baselines and decision-making. However the trained group showed a larger improvement in anticipation skill than the control group. The findings suggest that stroboscopic vision training does not improve perceptual-cognitive functions or decision-making, but may aid anticipation skills in soccer athletes.

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 whether domain-specific cognitive training can enhance executive function performance in youth elite soccer players.

Elite youth soccer players completed a structured cognitive training program targeting perceptual-cognitive and executive processes. Standardized executive function measures were administered before and after the intervention to assess changes in cognitive performance.

Participants demonstrated significant improvements in executive function measures following the training intervention, suggesting that structured cognitive training may enhance higher-order cognitive processes relevant to athletic performance. These findings support the potential value of targeted cognitive training approaches within elite youth sport development programs.

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.