Structured evidence table for Betaine Muscle Endurance Randomized Trial, generated from 2 reusable source documents in the Migaku knowledge base.
| topic | claim | evidence level | citation | source |
|---|---|---|---|---|
| Betaine Muscle Endurance Randomized Trial | Despite the theoretical appeal of this combined strategy, empirical evidence remains inconsistent. | 1 | Zhao Bingran (2026) | Combined effects of blood flow restriction training and nutritional intervention on muscle adaptations: a systematic review and meta-analysis |
| Betaine Muscle Endurance Randomized Trial | This study seeks to clarify the specific application value of nutritional supplements within the BFR training framework and explore the underlying physiological mechanisms, thereby providing evidence-based recommendations for the development of more precise, personalized training and nutrition strategies. | 1 | Zhao Bingran (2026) | Combined effects of blood flow restriction training and nutritional intervention on muscle adaptations: a systematic review and meta-analysis |
| Betaine Muscle Endurance Randomized Trial | 18 The risk of bias of the included randomized controlled trials was independently assessed by two researchers (B.R.Z. | 1 | Zhao Bingran (2026) | Combined effects of blood flow restriction training and nutritional intervention on muscle adaptations: a systematic review and meta-analysis |
| Betaine Muscle Endurance Randomized Trial | 1–3 41–43 4–6 1 3 6 1 2 7 44 45 46 Blood flow restriction (BFR) training, originally developed through early KAATSU- and vascular occlusion-based resistance training paradigms in the early 2000s, has gained increasing attention as a low-load training strategy in sports science and rehabilitation medicine (,). | 1 | Zhao Bingran (2026) | Combined effects of blood flow restriction training and nutritional intervention on muscle adaptations: a systematic review and meta-analysis |
| Betaine Muscle Endurance Randomized Trial | Mechanical tension, metabolic stress, and endocrine signaling associated with exercise rapidly activate intracellular pathways that converge on chromatin-modifying enzymes. | 3 | Leońska-Duniec Agata (2026) | Epigenetic Modulation of Exercise Adaptation: The Role of Dietary Supplementation in Athletic Performance |
| Betaine Muscle Endurance Randomized Trial | As a result, even acute exercise can induce measurable epigenetic shifts, which may accumulate over repeated sessions to support long-term phenotypic remodeling []. | 3 | Leońska-Duniec Agata (2026) | Epigenetic Modulation of Exercise Adaptation: The Role of Dietary Supplementation in Athletic Performance |
| Betaine Muscle Endurance Randomized Trial | A single bout of exercise has been shown to trigger transient hypomethylation (a reduction in methylation levels) in the promoters of key metabolic genes such aswhich encodes the peroxisome proliferator-activated receptor gamma coactivator 1-alpha (PGC-1α), resulting in increased transcriptional activity []. | 3 | Leońska-Duniec Agata (2026) | Epigenetic Modulation of Exercise Adaptation: The Role of Dietary Supplementation in Athletic Performance |
| Betaine Muscle Endurance Randomized Trial | 1 2 3 The pursuit of peak athletic performance has long been a quest for the perfect training regimen, the optimal diet, and the most effective recovery strategies. | 3 | Leońska-Duniec Agata (2026) | Epigenetic Modulation of Exercise Adaptation: The Role of Dietary Supplementation in Athletic Performance |
Source documents