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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.

The purpose of this study was to investigate the relationship between the effects of 4-weeks of NeuroTracker training on in-game soccer performance measures.

13 NCAA Division I soccer players were split into trained and control groups. Both groups completed a NeuroTracker baseline. The trained group then completed 10 NeuroTracker training sessions (60 minutes) over a 4-week period. Soccer performance metrics were obtained from WyScout where 2 game averages were examined to compare pre-post-NT performance.

Data analysis revealed a moderate improvement of the trained group over the control group in passing accuracy, a 8.5% increase post-training, versus a 3.5% increase. Small non-significant improvements were also observed for successful actions and short+medium passes for the NeuroTracker trained group.

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This was a pilot study with a selection of elementary school children based on test measures showing significant attention problems and impulse control, but not clinically diagnosed as ADHD. The purpose of this pilot study was to see if NeuroTracker has the potential be an efficacious short-term intervention for young students with severe attention impairments, based on changes in standardised neuropsychological assessments.

A test and control group of 5 Elementary school students each were included in the study, selected based on severely impaired rating on the IVA+PlusTM Continuous Performance Test. Both groups produced NeuroTracker initial baselines with statistically insignificant differences. The test group completed 21 five-minute NeuroTracker training sessions distributed over 3.5 weeks, the control group did no training. Both groups were then retested on the neuropsychological assessments.

The Test Group improved NeuroTracker speed thresholds by an average of 61% over the course of the training. The control group showed negligible difference in pre-post neuropsychological assessments scores, whereas the trained group showed variable but significant improvements across a range of visual and auditory measures. Gains were most pronounced in Prudence, Consistency and Focus in both visual and auditory domains, matching previous findings, and suggesting cross-modal performance transfer.In general the improvement ratios suggested that a short-term NeuroTracker training intervention can improve severe attention deficits towards moderate attention deficits in this population, with potential to positively impact learning outcomes at a young age.

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To examine the effects of NeuroTracker training on standardised measures of attention, working memory, and visual information processing speed using standardized neuropsychological tests. Additionally to measure changes in brain state using functional brain imaging.

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20 university-aged students were recruited and divided into an NT training group (30 sessions of NeuroTracker) and a non-active control group. Cognitive functions were assessed using standardized neuropsychological tests (IVA+Plus, WAIS-III, D-KEFS), and correlates of brain functions were assessed using quantitative electroencephalography (qEEG).

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The trained group showed strong and consistent improvements in NeuroTracker speed thresholds throughout the training period. The NT group demonstrated significantly higher scores on the IVA+Plus Auditory, WAIS Symbol Search, WAIS Code, WAIS Block Design, WAIS Letter-Number Sequence, d2 Test of Attention, and D-KEFS Color Naming, Inhibition and Inhibition/Switching subtests (P < .01). For qEEG measures the NT group demonstrated significant relative power increases in a range of frequencies within the beta bandwidth, with both eyes open and closed resting states. These changes were observed across frontal regions of the brain (executive function) and represented increases in brain wave speed associated with heightened brain activity and neuroplasticity. Overall results indicated that NeuroTracker training can enhance attention, information processing speed, and working memory, and also lead to positive changes in neuroelectric brain function.

To investigate if the decline in biological motion perception associated with healthy aging can be reversed with a short NeuroTracker training intervention.

13 participants completed 3-hours of NeuroTracker training over 5-weeks, and 28 control participants did either experimental training or no training (overall mean age of 67 years old). Pre-post assessments of biological motion perception was assessed with a VR walker (point like display) at 4m and 16m.

Pre-NeuroTracker training participants displayed significantly lower performance for interpreting human movement at 4m, compared to 16m. Controls showed no change post-training, whereas the NeuroTracker trained group's performance at 4m rose to the level of their performance at 16m. As biological motion perception abilities are deemed to be important for social skills, as well as critical for collision avoidance at 4m, the researchers concluded that the results demonstrate NeuroTracker to be a useful form of generic training for helping older people deal with socially relevant dynamic scenes.

Several studies have shown that aerobic exercise can slow age-related cognitive decline, and in some cases, improve cognitive function in the older population. The purpose of this study was to investigate for the first time, the effects of resistance training on cognitive function, as measured by changes in NeuroTracker measures.

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25 older adults with a mean age of 70yrs were split into a trained group (6 weeks of resistance exercises), and an untrained group. Perceptual-cognitive ability was measured pre and post training using NeuroTracker baselines.

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The older adults who performed six weeks of resistance training experienced significant improvements in perceptual-cognitive function as measured by NeuroTracker. Resistance training may therefore be an effective means to slow age related cognitive decline.

To investigate whether dynamic visual tracking performance measured using a 3D multiple object tracking task differs across basketball players of varying competitive skill levels.

Basketball athletes from different performance tiers completed a 3D-MOT task designed to assess dynamic visual attention and tracking speed thresholds. Performance metrics were compared between higher- and lower-level players to determine whether tracking ability scales with competitive expertise.

Higher-level basketball players demonstrated significantly superior tracking performance compared to lower-level players, achieving faster speed thresholds and more stable tracking under dynamic conditions. These findings support the link between perceptual-cognitive capacity and competitive skill level, reinforcing the role of dynamic attention in high-performance sport.

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.

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To determine if variance in hydration status would be associated with cognitive performance, as assessed by NeuroTracker.

121 participants performed 15 NeuroTracker sessions across 10 days of visits to the laboratory. On the days of training, recent fluid intake, urine color (Urine color scale, UC), and body water (BIA) were documented.

Individuals with average urine color indicating good hydration performed significantly worse on NeuroTracker than those with a borderline dehydrated indicator, as based on urine color. Participants with no recent beverage consumption performed significantly better than those who had recently consumed water, tea, coffee , and milk. The researchers suggested that optimal hydration may not occur at the highest values of the urine color scale possibly due to moderate hyponatremia and hemodilution that could impact NeuroTracker performance.

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