Structured evidence table for Dietary Nitrate Endurance Meta-Analysis, generated from 2 reusable source documents in the Migaku knowledge base.
| topic | claim | evidence level | citation | source |
|---|---|---|---|---|
| Dietary Nitrate Endurance Meta-Analysis | 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 |
| Dietary Nitrate Endurance Meta-Analysis | 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 |
| Dietary Nitrate Endurance Meta-Analysis | 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 |
| Dietary Nitrate Endurance Meta-Analysis | 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 |
| Dietary Nitrate Endurance Meta-Analysis | Some supplements are among the most evidence‐based and practically useful interventions available to athletes, whereas the same market may expose athletes to substances that are ineffective, mislabelled, contaminated or prohibited under antidoping regulations [–]. | 3 | Mancin Laura (2026) | Reducing the Risk of Unintentional Doping From Supplements: A Practical Guide for Athletes and Support Teams |
| Dietary Nitrate Endurance Meta-Analysis | Thus, the clinical question is not simply whether a supplement can improve performance, but whether its expected benefit justifies its safety, legal and antidoping risk in a specific athlete and context. | 3 | Mancin Laura (2026) | Reducing the Risk of Unintentional Doping From Supplements: A Practical Guide for Athletes and Support Teams |
| Dietary Nitrate Endurance Meta-Analysis | Consensus statements, including those from the International Olympic Committee (IOC), support the targeted use of a limited number of supplements in well‐defined scenarios when decisions are made by qualified professionals and grounded in evidence‐based practice []. | 3 | Mancin Laura (2026) | Reducing the Risk of Unintentional Doping From Supplements: A Practical Guide for Athletes and Support Teams |
| Dietary Nitrate Endurance Meta-Analysis | 1 3 4 5 The pursuit of peak performance in sport requires continuous optimisation of training, recovery, nutrition and health. | 3 | Mancin Laura (2026) | Reducing the Risk of Unintentional Doping From Supplements: A Practical Guide for Athletes and Support Teams |
Source documents