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To investigate whether acute cognitive fatigue, induced via a Stroop task, affects multiple object tracking performance in young basketball athletes.

Participants were young basketball players who completed a standard Stroop task designed to induce cognitive fatigue. After the Stroop protocol, participants were assessed on a 3D multiple object tracking (3D-MOT) task to evaluate perceptual-cognitive tracking performance under fatigued cognitive conditions. Performance on the NeuroTracker task was compared between the fatigue condition and either baseline or control conditions.

Participants’ 3D-MOT performance did not show a significant decrement following Stroop-induced cognitive fatigue. Dynamic tracking thresholds and accuracy remained statistically similar across the fatigued and non-fatigued conditions, suggesting that the athletes’ perceptual-cognitive tracking ability was resilient to this laboratory-induced mental fatigue protocol.

Attention and concentration are crucial abilities that affect the decision-making of athletes; e.g. during a soccer action, an athlete has to divide attention on the field (teammates, opponents, ball), to use selective attention (which player to give the ball to) and to focus attention (staring at the net to score). To this purpose, many benefits may arise from the high-level NeuroTracker conditioning technique as it stimulates active processing of dynamic visual information and trains perceptual- cognitive functions of athletes. In particular, it targets selective, dynamic and sustained attention, as well as working memory.

23 university soccer players participated in the study and were randomly allocated to three different groups. Experimental group: performed 30 NeuroTracker Core sessions over a 5 week period Active control group: performed 30 3D soccer videos sessions over 5 week periodPassive control group: No particular training activity over a 5 week period.Players ’ decision-making was evaluated during standardized small sided games before and after the training period. Decision-making of soccer players was objectively analysed through video recordings of the small sided games by a soccer coach blinded to the experimental protocol and using a standardized coding criteria. Subjective decision-making accuracy was directly evaluated from players’ confidence levels in decision-making promptly after the games using a Visual Analog Scale (Sport Performance Scale).

Only the NeuroTracker trained group showed an increase (15%) in passing decision making on the field after the training. Moreover, players’ subjective decision-making assessment was quantitatively proportional to the improvement in decision-making accuracy rated during video analysis for theNeuroTracker trained group.These results seem to demonstrate that passing decision-making accuracy improvement in the trained group represents a meaningful training effect. For the first time, this study demonstrates a perceptual-cognitive transfer from the laboratory to the field following a non-sport specific perceptual-cognitive training program.

This study measured the capacity of older participants to improve their tracking speed thresholds (NeuroTracker), to investigate if age related cognitive decline can be reversed with a training intervention known to be directly relevant to the effects of healthy aging.

20 healthy younger adults (mean age 24 years old) and 20 healthy older adults (mean age 67 years old) performed 15 NeuroTracker training sessions distributed over 5 weeks.

Both groups obtained benefit from training with a similar rate of progression. Though the older group started off at a significantly lower level than the younger group, they obtained speed thresholds that were similar to those of untrained younger adults by the end of the training program. Furthermore, towards the end of the training program the rate of learning appeared to have slowed for the younger group, yet the older group still showed a strong learning curve, suggesting greater improvements with continued training. In conclusion, although healthy older people show a significant age-related deficit in the NeuroTracker task, they respond strongly to training effects and demonstrate an ability to fully reverse age-related functional decline with a short intervention of NeuroTracker training.

To assess the usefulness of NeuroTracker (3D-MOT) as a cognitive enhancement tool to overcome the common challenges associated with cognitive training products.

The author conducted a comprehensive review of current literature for cognitive enhancement tools, as well as the specific literature on NeuroTracker to probe its strengths and weaknesses as a research tool. Evidence was also examined for the cognitive domains that NeuroTracker addresses.

NeuroTracker was found to have broad scientific relevant for improving a number of cognitive domains, including information processing, attention, working memory, inhibition, and executive functions. Far transfer effects were found in the following human performance domains: visual information processing in healthy adults, biological motion processing in healthy aging subjects, on-field performance in soccer players, and in attention for populations with neurodevelopmental deficits. The author concluded, that while promising peer-reviewed research exists, more investigations are needed to robustly establish the beneficial effects of this method in the context of cognitive enhancement.

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 investigate how perceptual–cognitive performance is affected during high-intensity interval training (HIIT) using NeuroTracker(NT) assessments.

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42 healthy adults were randomly assigned to an intervention (HIIT + NT, NT, HIIT) or control group. NT performance was measured pre-and post-test at 5, 15, and 25 min while running on a treadmill. The participants trained twice a week for a 4-week intervention period.

There was a significant interaction effect between pre/post-test and groups regarding perceptual-cognitive performance, indicating similar enhancements in the HIIT + NT and the NT group during exercise. HIIT influences physical fitness but did not show any impact on perceptual–cognitive performance. Overall training resulted in substantial task-specific gains. The researchers suggest combination training may be proposed as a training program to improve perceptual–cognitive, and physical performance in a time-efficient way.

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.

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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.

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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 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 determine whether baseline NeuroTracker performance predicts overall season sport performance in university varsity athletes.

University varsity athletes completed baseline NeuroTracker assessments prior to their competitive season. Objective season performance statistics were collected and analyzed to evaluate potential associations between baseline perceptual-cognitive tracking ability and in-season performance outcomes.

No significant correlation was found between baseline NeuroTracker performance and overall season sport performance metrics. These findings suggest that baseline perceptual-cognitive tracking ability alone may not directly predict aggregate competitive outcomes, highlighting the multifactorial nature of sport performance.