Healthy
Conditions
Keywords
Ice Hockey, Cognitive Function, Cognition, Brain, Supplement, Contact Sport Athletes
Brief summary
This research is being done to investigate the dietary supplement, Synaquell (TM), for effects on brain function in youth ice hockey players.
Detailed description
This randomized clinical trial will compare a brain health supplement (Synaquell) with placebo in both male and female ice hockey players over the course of an entire season. The repeated measure design will compare pre- and post-season objective brain health parameters, including quantitated EEG (Neurocatch), blood biomarkers and a rapid number naming test (King Devick).
Interventions
7.9 grams (1 scoop) of Synaquell powder mixed with 12 ounces of water two times per day for the duration of the sport season. The daily amount taken by each participant is (15.8 grams).
7.9 grams (1 scoop) of placebo powder mixed with 12 ounces of water two times per day for the duration of the sport season. The daily amount taken by each participant is (15.8 grams). The placebo looks, smells, and tastes like Synaquell but does not contain active ingredient.
Sponsors
Study design
Masking description
The study staff responsible for preparing and distributing SynaquellTM will not be blinded to the intervention, but all subjects and other study staff will be blinded.
Eligibility
Inclusion criteria
* Fluent English speakers * Medically cleared to play ice hockey
Exclusion criteria
* An allergy to the ingredients of SynaquellTM or the placebo * Clinically documented hearing issues, * In-ear hearing aid or cochlear implant * Implanted pacemaker or defibrillator * Metal or plastic implants in skull * Lack of verbal fluency in the English language * History of seizures * Allergy to rubbing alcohol or EEG gel
Design outcomes
Primary
| Measure | Time frame | Description |
|---|---|---|
| Change in blood biomarker | Baseline, Postseason (approximately 6 months) | Neurofilament light chain (NfL) blood serum levels |
| Change in N100 Amplitude | Baseline, Postseason (approximately 6 months) | Obtained by EEG recording of N100 potential amplitude. This measures is subsequently linearly transformed to a standardized score on a 0-100 scale, with larger peak amplitudes and shorter peak latencies resulting in higher scores. Changes in brain vital sign scores are depicted within a radar plot format, with the transformation process preserving the essential ERP results but enabling practical, simplified interpretation. |
| Change in N100 Latency | Baseline, Postseason (approximately 6 months) | Obtained by EEG recording of N100 potential latency. Increased latencies are indicative of slower responses. Obtained by EEG recording of N100 potential amplitude. This measures is subsequently linearly transformed to a standardized score on a 0-100 scale, with larger peak amplitudes and shorter peak latencies resulting in higher scores. Changes in brain vital sign scores are depicted within a radar plot format, with the transformation process preserving the essential ERP results but enabling practical, simplified interpretation. |
| Change in P300 Amplitude | Baseline, Postseason (approximately 6 months) | Obtained by EEG recording of P300 potential amplitude. Increased amplitudes are indicative of larger signals. This measures is subsequently linearly transformed to a standardized score on a 0-100 scale, with larger peak amplitudes and shorter peak latencies resulting in higher scores. Changes in brain vital sign scores are depicted within a radar plot format, with the transformation process preserving the essential ERP results but enabling practical, simplified interpretation. |
| Change in P300 Latency | Baseline, Postseason (approximately 6 months) | Obtained by EEG recording of P300 potential latency. Increased latencies are indicative of slower responses. This measures is subsequently linearly transformed to a standardized score on a 0-100 scale, with larger peak amplitudes and shorter peak latencies resulting in higher scores. Changes in brain vital sign scores are depicted within a radar plot format, with the transformation process preserving the essential ERP results but enabling practical, simplified interpretation. |
| Change in N400 Amplitude | Baseline, Postseason (approximately 6 months) | Obtained by EEG recording of N400 potential amplitude. Increased amplitudes are indicative of larger signals.This measures is subsequently linearly transformed to a standardized score on a 0-100 scale, with larger peak amplitudes and shorter peak latencies resulting in higher scores. Changes in brain vital sign scores are depicted within a radar plot format, with the transformation process preserving the essential ERP results but enabling practical, simplified interpretation. |
| Change in N400 Latency | Baseline, Postseason (approximately 6 months) | Obtained by EEG recording of N400 potential latency. Increased latencies are indicative of slower responses.This measures is subsequently linearly transformed to a standardized score on a 0-100 scale, with larger peak amplitudes and shorter peak latencies resulting in higher scores. Changes in brain vital sign scores are depicted within a radar plot format, with the transformation process preserving the essential ERP results but enabling practical, simplified interpretation. |
Secondary
| Measure | Time frame | Description |
|---|---|---|
| Change in King-Devick Test (KDT) scores | Baseline, Postseason (approximately 6 months) | A rapid number-naming test that requires individuals to read 3 numbered patters aloud as fast as possible, the resulting time if the KDT score. The post-season score is compared to the pre-season baseline. An increase in the number of seconds required to read the 3 number patterns is considered to be significant. |
Countries
United States