Structured evidence table for Quercetin Exercise Recovery Randomized Trial, generated from 2 reusable source documents in the Migaku knowledge base.
| topic | claim | evidence level | citation | source |
|---|---|---|---|---|
| Quercetin Exercise Recovery Randomized Trial | Risk of bias, methodological quality, and certainty of evidence were assessed using RoB 2, PEDro, and GRADE. | 1 | Zhu Y (2026) | Does chronic polyphenol supplementation modify resistance training-induced strength and muscle morphology adaptations in adults? A systematic review and multilevel meta-analysis of randomized controlled trials. |
| Quercetin Exercise Recovery Randomized Trial | Conclusion Current evidence does not establish a reliable additional effect of chronic polyphenol supplementation on resistance training-induced strength, lean-mass, or direct muscle-morphology adaptations. | 1 | Zhu Y (2026) | Does chronic polyphenol supplementation modify resistance training-induced strength and muscle morphology adaptations in adults? A systematic review and multilevel meta-analysis of randomized controlled trials. |
| Quercetin Exercise Recovery Randomized Trial | However, the limited number of independent trials, substantial clinical and methodological indirectness, and low-to-very-low certainty of evidence prevent firm conclusions regarding either benefit or lack of benefit. | 1 | Zhu Y (2026) | Does chronic polyphenol supplementation modify resistance training-induced strength and muscle morphology adaptations in adults? A systematic review and multilevel meta-analysis of randomized controlled trials. |
| Quercetin Exercise Recovery Randomized Trial | Background Polyphenol-rich supplements are widely used to support exercise recovery, but whether these recovery-oriented effects translate into long-term resistance-training adaptations remains unclear. | 1 | Zhu Y (2026) | Does chronic polyphenol supplementation modify resistance training-induced strength and muscle morphology adaptations in adults? A systematic review and multilevel meta-analysis of randomized controlled trials. |
| Quercetin Exercise Recovery Randomized Trial | However, existing evidence does not prove that microbiome changes are a direct source of these adaptations as exercise, food, and other host factors may all contribute at the same time (). | 3 | Zhang Xinbao (2026) | Microbiome-based nutrition and the gut–muscle axis: emerging perspectives for athletic performance and recovery |
| Quercetin Exercise Recovery Randomized Trial | Bioactive plant chemicals called polyphenols, which are found in large quantities in fruits, vegetables, and teas, additionally regulate this relationship by selectively enriching and functioning as prebiotic substrates (). | 3 | Zhang Xinbao (2026) | Microbiome-based nutrition and the gut–muscle axis: emerging perspectives for athletic performance and recovery |
| Quercetin Exercise Recovery Randomized Trial | SCFAs may affect AMPK, PGC-1α, and associated metabolic pathways, according to experimental studies. | 3 | Zhang Xinbao (2026) | Microbiome-based nutrition and the gut–muscle axis: emerging perspectives for athletic performance and recovery |
| Quercetin Exercise Recovery Randomized Trial | 1 2 3 4 The dynamic interaction of training load, recuperation, diet, and biological resilience determines athletic efficiency. | 3 | Zhang Xinbao (2026) | Microbiome-based nutrition and the gut–muscle axis: emerging perspectives for athletic performance and recovery |
Source documents