Structured evidence table for Protein Exercise Recovery Meta-Analysis, generated from 2 reusable source documents in the Migaku knowledge base.
| topic | claim | evidence level | citation | source |
|---|---|---|---|---|
| Protein Exercise Recovery Meta-Analysis | Methodological quality was assessed using AMSTAR 2, and certainty of evidence using GRADE. | 1 | Berjisian E (2026) | Strategic Application of Post-exercise Cold-Water Immersion to Enhance Performance Recovery and Adaptation: An Umbrella Review of 15 Published Systematic Reviews with Meta-analysis. |
| Protein Exercise Recovery Meta-Analysis | Overall methodological quality was low to critically low, and certainty of evidence was low to very low, mainly due to inconsistency and imprecision. | 1 | Berjisian E (2026) | Strategic Application of Post-exercise Cold-Water Immersion to Enhance Performance Recovery and Adaptation: An Umbrella Review of 15 Published Systematic Reviews with Meta-analysis. |
| Protein Exercise Recovery Meta-Analysis | Endurance performance improved immediately after CWI, but CWI produced no later benefits or positive effects on adaptations. | 1 | Berjisian E (2026) | Strategic Application of Post-exercise Cold-Water Immersion to Enhance Performance Recovery and Adaptation: An Umbrella Review of 15 Published Systematic Reviews with Meta-analysis. |
| Protein Exercise Recovery Meta-Analysis | Background Athletes commonly implement post-exercise cold-water immersion (CWI), with several meta-analyses having assessed its effectiveness. | 1 | Berjisian E (2026) | Strategic Application of Post-exercise Cold-Water Immersion to Enhance Performance Recovery and Adaptation: An Umbrella Review of 15 Published Systematic Reviews with Meta-analysis. |
| Protein Exercise Recovery Meta-Analysis | This review aimed to synthesize current evidence on nutritional strategies for recovery following high-intensity exercise, ranging from foundational macronutrients to functional foods and bioactive compounds. | 4 | Farzana HR (2026) | From Macronutrients to Functional Foods: Nutritional Strategies for Recovery Following High-Intensity Exercise. |
| Protein Exercise Recovery Meta-Analysis | Functional foods and bioactive compounds may provide additional benefits as adjunct recovery strategies, although the available evidence varies considerably across exercise models, participant characteristics, supplementation protocols, and recovery outcomes. | 4 | Farzana HR (2026) | From Macronutrients to Functional Foods: Nutritional Strategies for Recovery Following High-Intensity Exercise. |
| Protein Exercise Recovery Meta-Analysis | Among the functional foods reviewed, tart cherry currently has the strongest supporting evidence for selected recovery outcomes. | 4 | Farzana HR (2026) | From Macronutrients to Functional Foods: Nutritional Strategies for Recovery Following High-Intensity Exercise. |
| Protein Exercise Recovery Meta-Analysis | High-intensity exercise improves aerobic and anaerobic performance, neuromuscular function, and sport-specific readiness but may also induce glycogen depletion, exercise-induced muscle damage, muscle soreness, inflammatory responses, oxidative stress, and temporary reductions in subsequent performance. | 4 | Farzana HR (2026) | From Macronutrients to Functional Foods: Nutritional Strategies for Recovery Following High-Intensity Exercise. |
Source documents