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To examine the effects of different rehydration strategies on cognitive performance under the effects of physical fatigue.

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12 male endurance-trained runners (av. age: 23. years) were tasked with running on a treadmill at 70% of their predetermined VO2max for 1 h followed by running at 90% of VO2max until exhaustion on four separate days. On each day different hydration modalities were given (no hydration, electrolyte drink, electrolyte drink with a low dose of Sustamine, electrolyte drink with a high dose of Sustamine), drinking 250 mL every 15 min. Before and after each hour run, cognitive function (NeuroTracker) and reaction tests were administered.

Results showed that physical reaction time was faster for the low dose trial than the high dose trial. Analysis of lower body quickness indicates that performance in both the low and high dose trials were likely improved in comparison to the no hydration trial. NeuroTracker results indicated a possible greater performance for dehydration and low dose compared to only the electrolyte drink, while there was a likely greater performance in multiple object tracking for the high dose trial compared to consumption of the electrolyte drink only.

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

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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 evaluate the effectiveness and transfer of an NeuroTracker training on visual and executive functions in youth elite soccer players.

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29 elite youth soccer players were recruited and divided into training and control groups. Visual and executive functions were analyzed in a pre–post test design with both groups doing regular soccer training, and the trained group also completing 10 weeks of NeuroTracker training twice a week. Transfer assessments included tests with the Senaptec Sensory Station, the Trail Making Test, and the Design Fluency test.

Large differences in NeuroTracker initial baselines were found both between the groups, and within the groups. For the trained group, initial baselines were strongly correlated with improvement rates. Assessments show gains for both groups in working memory, cognitive flexibility, inhibition, metacognition, MOT, attention window and processing speed, but only measures inhibition, visual clarity showed advantages specific to the trained group. The researchers recommended studies with a dual-task training intervention and larger number of participants may be needed to reveal training effects for this population.

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.

To examine whether relative age (birth quartile), training background, and stereopsis influence perceptual–cognitive performance measured using a 3D multiple object tracking (3D-MOT) task in youth athletes.

A total of 165 male youth athletes aged 10–16 years were categorized by birth quartile and training exposure (moderately trained: 1–2 sessions/week; well-trained: 4–5 sessions/week). Participants completed a standard NeuroTracker 3D-MOT protocol under both stereoscopic (3D) and non-stereoscopic (2D) conditions. Speed thresholds were calculated using an adaptive staircase procedure and compared across groups.

Among moderately trained athletes, those born earlier in the selection year outperformed relatively younger peers, demonstrating a perceptual–cognitive Relative Age Effect. However, in well-trained athletes, performance differences between birth quartiles disappeared, with later-born athletes achieving comparable tracking thresholds. Performance was significantly higher in 3D versus 2D conditions, but stereopsis did not interact with birth quartile or training status.

These findings suggest that structured training exposure may mitigate perceptual–cognitive disadvantages associated with relative age during development.

This exploratory study sought to evaluate the relationship between spatial awareness, agility, and distance covered as measured by GPS.

12 American collegiate athletes were assessed on spatial awareness (NeuroTracker: 1 Core session),agility (Pro-agility and T Drill), and then measured for running distance in a competitive Rubgy match at low, moderate and high intensity running speeds.

Agility measures did not correlate with any of the running speeds, and the spatial awareness measure did not correlate with low or high intensity running. However spatial awareness did correlate significantly with moderate intensity running (cruising/striding). Spatial awareness, as measured by NeuroTracker, appears to be related to the moderate intensity movement patterns of rugby union athletes. The researchers hypothesize that the ability to track teammates and opponents while at striding speed may be result of the processing of external and internal stimuli, while generally attempting to navigate open space on the pitch.

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 test the theory that driving performance is strongly associated with dynamic processing of multiple objects, by evaluating if NeuroTracker measures correlate with older driving performance in simulated scenarios.

30 experienced drivers with ages ranging from 65-85 years old were tested on one session of NeuroTracker (3D-MOT), and completed up to 3 driving scenarios on the STISIM 3.0 driving simulator. 5 unexpected events were included in the scenarios to test crash risk. The correlations between NeuroTracker speed thresholds and simulator measures (crash rate, lane deviation) were then calculated.

Highly significant correlations were found between NeuroTracker thresholds and both crash rate and lane deviation in the highway driving scenarios. Lower NeuroTracker scores were strongly associated with lane deviation during highway merging, and higher NeuroTracker scores related to participants being less likely to crash across different scenarios, and to have better overall lane maintenance skills. This study adds plausibility to the idea that a multiple object tracking test such as NeuroTracker could be a candidate for inclusion in an assessment battery for older drivers.

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.