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

The purpose of this study was to examine the effect of the L-Alanyl-L-Glutamine dipeptide (AG) and electrolyte drink (ED) on cognitive function (NeuroTracker) following endurance exercise, in order to measure the effects of rehydration effectiveness.

12 male endurance athletes performed four trials, each consisting of running on a treadmill at 70% of VO2max for 1h, then at 90% of VO2max until exhaustion. One trial consisted of no hydration, another required ingestion of only a sports electrolyte drink (ED) and two trials required ingestion of a low dose (LD) and high dose of AG (HD) added to the ED. Cognitive function was measured through NeuroTracker baselines pre and post-exercise.

Before rehydration, subjects lost on average 2.4% of their body mass. Pre-post rehydration changes showed HD to be the most effective in aiding cognitive function, and electrolyte only having questionable benefit.

To investigate of NeuroTracker baselines can be a predictor of air traffic control task performance.

46 participants completed 2 hours of assessments including a NeuroTracker baseline, the Corsi Block Tapping and Automated Operation Span tests, followed by a simulated air traffic control task.

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After controlling for age and video game playing, NeuroTracker baselines significantly predicted correct detections of conflicts between aircraft, fewer false alarm responses to conflicts, and faster aircraft acceptance and hand-off performance. NeuroTracker was a stronger predictor of these outcomes, than the Corsi Block Tapping and Automated Operation Span tests. The researchers concluded that the findings demonstrate that NeuroTracker and could be useful for applicant screening and selection of air traffic control personnel.

To investigate the effectiveness of NeuroTracker training with elite volleyball players as a form of off-court cognitive performance training.

43 elite volleyball athletes performed pre—post NeuroTracker baselines, along with several transfer tests. The active group completed an 8-week NeuroTracker training program in-between pre-post tests, which also included volleyball specific dual-tasks. The control group did no NeuroTracker training, but completed regular volleyball training.

Controls showed no change in pre-post NeuroTracker baselines, while the active group approximately doubled their NeuroTracker speed thresholds. Near transfer tests for sustained attention and processing speed showed significant gains for the NeuroTracker group only. A far transfer motor-skill test was used but was of insufficient difficulty to signficantly differentiate the active and control groups. The researchers concluded that NeuroTracker provides an example of an effective method for improving athlete's cognitive capacities with an off-court training intervention.

To to determine whether a hydration plan based off of an athlete’s sweat rate and sodium loss, improves anaerobic and neurocognitive performance during a moderate to hard training session, as well as heart rate recovery from the session.

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15 NCAA collegiate athletes from Merrimack College from multiple sports first underwent a qualitative assessment for hydration habits and knowledge, then were assessed for sweat loss, and randomly assigned to either a prescription hydration plan (PHP) or asked to continue with their normal hydration habits (NHP). All participants completed underwent performance assessments prior, during, and immediately after a moderate to hard sports-specific training session. Assessments included NeuroTracker baselines, standing long jump, heart rate and Vo2 Max monitoring, as well as sodium and sweat loss monitoring.

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NeuroTracker baselines provided a clear indication that a prescription hydration plan has a significantly better influence on perceptual-cognitive functions, both pre and post physical training, compared to a normal hydration plan. Overall, the researchers conclude that this is the first investigation to show that an individually tailored hydration plan improves athletic performance for collegiate athletes engaged in a variety of sports.

To investigate if NeuroTracker training can transfer to improved driving skills as measured by state-of-the-art driving simulators.

20 young adults and 14 older adults were divided into active and active-control groups. The active group completed 30 sessions of NeuroTracker training. Before and after training all participants were assessed using a high-fidelity driving simulator, which measured numerous aspects of driving performance.

The results of the study revealed that both young and older adults showed significant improvements in simulated driving performance following the NeuroTracker training. Specifically this included better lane keeping abilities, quicker reaction times to hazards, and enhanced overall situational awareness. The older adult group exhibited larger overall gains in driving performance. The researchers concluded that this study provides preliminary evidence that NeuroTracker training may improve driving safety, particularly through quicker detection of or reaction to dangerous events.

To systematically evaluate the scientific evidence supporting NeuroTracker as a perceptual-cognitive training tool, examining both (1) whether it trains the cognitive functions claimed and (2) whether training transfers to other domains, particularly real-world performance.

NeuroTracker consistently produces improvements on the trained 3D-MOT task itself (robust task-specific learning). Near transfer evidence exists, but some study results are are inconsistent or limited by small samples or methodological weaknesses. Far transfer evidence is limited to only a small number of studies, with mixed outcomes—two of three far-transfer studies reported no significant effect. Methodological concerns of existing research include lack of preregistration, sample sizes, unmatched control groups, and inconsistent reporting of transfer outcomes. The authors also argue that the cognitive processes underlying 3D-MOT are complex and not fully aligned with some marketing claims.

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.

To compare the visual tracking performance of professional as well as amateur eSport players and traditional sportsmen using NeuroTracker.

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19 professional players, 22 amateur players and 18 traditional sportsmen completed 3 NeuroTracker sessions. The first session was completed in 2D (non-stereo), and sessions 2 and 3 were completed in 3D (stereo). Experience and playtime data was also collected for analysis.

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Professional players spent significantly more time playing esports than amateurs. Pearson correlations revealed positive associations between hours of esport / week and NeuroTracker scores. Mean session score averages across each session consistently found esport professional to have the highest NeuroTracker performance, following by traditional sportsmen. Analysis of prior NeuroTracker research showed that session scores for all three groups were higher than the scores of the normal population.

3D vision (binocular stereo) develops during childhood and tends to reduce after 65 years of age. This study aimed to investigate whether these effects are significant when processing complex and dynamic motion.

Three groups of 20 subjects were recruited: children (7–12 years old), adults (18–40 years old) and older adults (≥65 years old). Each person completed 4 NeuroTracker sessions, 2 in 2D (no binocular stereo) and 2 in 3D (with binocular stereo).

As typical, adults achieved significantly higher NeuroTracker scores than children or elderly. They also gained a significantly larger advantage when performing NeuroTracker in 3D. In turn, children showed more advantage with 3D than elderly. This suggests that older populations have reduced ability to process complex and dynamic motion using stereoscopic processing. This study reveals that comparison between scores with and without stereoscopic effect, allows direct evaluation of the stereopsis advantage when performing NeuroTracker.