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To assess the performance transfer effects from NeuroTracker training to professional baseball hitting over a competition season.

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12 Japanese pro baseball players from the Seibu Lions performed NeuroTracker training at their own preferred timing and frequency over 5 months, completing up to 80 sessions each. Throughout this duration and 4 months prior, competition hitting metrics were recorded: zone contact, zone-swing strike, outside swing, outside-swing strike.

On average the baseball players’ NeuroTracker speed threshold scores improved by around 30%, with no ceiling effects from continued training. Metrics on fastball hitting showed no significant changes. However, metrics on non-fastball hitting (e.g. curve balls and sliders) revealed strong positive effects. Successful hit rate increased by +12%, while zone swing and outside swing strikes were reduced substantially by -25.3% and -26.5% respectively. Outside swings were also positively reduced by -9.6%.

To assess if the mechanism of perceptual-cognitive training can transfer to spatial and semantic abilities in students.

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60 male lower secondary school students were randomly assigned a NeuroTracker training group (21 sessions over 7 days) or a passive control group (no training). Pre- and post-training assessment were carried out with the Test of Spatial Ability and the Test Of Semantic Skills–Intermediate.

The control group showed negligible change between pre and post tests, whereas the NeuroTracker group showed significant transfer with around a 50% gain in spatial ability and a 55% gain in semantic skills. The researchers concluded that a NeuroTracker intervention can increase cognitive abilities in secondary school students.

To investigate if NeuroTracker training can improve archery concentration performance at moment of shooting.

20 archers in an archery club were divided into two control groups. Over 12 visits the one group completed NeuroTracker training, while the other group completed conventional archery training. Pre-post assessments of concentration were completed by both groups using the Concentration Grid Test.

‍There was a significant transfer effect from both the NeuroTracker training and the conventional training on the improvement of the archery athlete’s concentration, however NeuroTracker training demonstrated stronger post-training improvements on the Concentration Grid Test across mean, standard deviation and gain scores. The researchers conclude NeuroTracker could be an effective training method to improve the concentration of archery athletes.

To examine if NeuroTracker training transfers to useful field of view (UFOV) performance, a measure strongly associated with driving performance.

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Twenty healthy young adults between the ages of 23 and 33 years were recruited and evenly assigned to either a NeuroTracker training program or active control group using a math game (2048). Both groups completed 5 hours of training distributed over 5 weeks. Both groups completed pre-post standardized assessments of UFOV.

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The NeuroTracker training group exhibited significantly improved UFOV performance, whereas the active control group showed only a small, statistically nonsignificant improvement in the task. The researchers suggest that NeuroTracker and UFOV performance are likely dependent on overlapping cognitive abilities, and that these abilities can be trained and measured in young adults which could lead to improving driving safety.

To examine the effects of a high intensity intermittent exercise (HIIE) protocol on performance with a perceptual-cognitive task (NeuroTracker), and whether effects differ between children, young adults, and older adults.

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12 children, 12 young adults and 12 older adults completed a HIIE program consisting of eleven 30-second intervals at 90% VO2 max, interspersed with 2-minute active recovery periods at 50% VO2max. Before and during this exercise protocol, three sessions of NeuroTracker task were performed at 5, 15, and 25 minute intervals.

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Young adults had significantly higher absolute NeuroTracker scores than children and older adults. Apart children, NeuroTracker scores improved each session, despite the exercise demands (greatest for young adults). The findings suggest that intensive exercise protocols are suitable to be combined with NeuroTracker cognitive training with younger and older adults, but not with children.

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

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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 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.

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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 examine the role of working memory and visual attention for tracking expertise in different sports.

Two experiments were performed. In the experiment 1 (assessment-only), 31 male and female experienced athletes were divided into high-tracking and low-tracking sports, e.g. soccer vs swimming. They completed 3 assessment blocks (9 trials each) of the Jardine and Seiffert 2D MOT task, using 2, 3 and 4 targets at slow, medium and fast fixed speeds. Eye tracking behavior was recorded during the task. In experiment 2, 36 participants (similar to experiment 1) were divided into a control and active group. Pre and post training, both groups completed the same 2D MOT assessment with eye tracking, as well as 2 types of n-back working memory assessments (combined visual and auditory demands). The active group completed a training intervention of 4 NeuroTracker sessions (20 trials each), using adaptive speed adjustments, whereas the controls did not.

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In Experiment 1, analysis of eye tracking data revealed that directing gaze towards the center of the screen was a beneficial strategy for achieving higher tracking performance. High tracking sports showed superior tracking performance overall. In experiment 2, the active group experienced a large improvement in both NeuroTracker scores and working memory performance post-training, including a 35% increase WM accuracy. Training also transferred to significantly improved performance on the 2D MOT assessment. Controls showed no significant changes in pre-post assessments.

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.

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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.

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