Cold water immersion enhances recovery of submaximal muscle function after resistance exercise
Roberts LA, Nosaka K, Coombes JS, Peake JM
American journal of physiology. Regulatory, integrative and comparative physiology · 84 citations
How it was studied
- Design
- Randomized controlled trial (indexed by PubMed)
- Studied in
- People
- Main outcome
- Health markers and function
Who paid for it
- Funding
- Independent funding
- University or hospital
- University of Queensland
Based on 1 listed funder(s).
Publication
- Published
- 2014-08-14 · Am J Physiol Regul Integr Comp Physiol · vol. 307 · issue 8 · pp. R998–R1008
- Publisher
- American Physiological Society
- Cited
- 123 citations · more than 99% of similar papers · 9.3× the field average
- Impact
- Top 10% most cited in its field
- References
- 51 works
- Access
- Open access (repository copy)
- Research areas
- Exercise and Physiological Responses · Cardiovascular and exercise physiology · Sports Performance and Training
- Keywords
- Isometric exercise, Medicine, Squat, Internal medicine, Cardiology, Venous blood, Bench press, Myoglobin, Muscle damage, Resistance training, Physical therapy, Chemistry
- MeSH
- muscle, skeletal, humans, oxygen, water, lactates, endothelin-1, myoglobin, interleukin-6, body temperature, exercise, cross-over studies, immersion, recovery of function, time factors, male, cold temperature, resistance training, young adult
4 authors
From AU
- Llion Arwyn RobertsThe University of Queensland; Queensland Academy of Sport
- Kazunori NosakaEdith Cowan University
- Jeff Scott CoombesThe University of Queensland
- Jonathan M. Peake · correspondingQueensland University of Technology; Queensland Academy of Sport
Abstract
We investigated the effect of cold water immersion (CWI) on the recovery of muscle function and physiological responses after high-intensity resistance exercise. Using a randomized, cross-over design, 10 physically active men performed high-intensity resistance exercise followed by one of two recovery interventions: 1) 10 min of CWI at 10°C or 2) 10 min of active recovery (low-intensity cycling). After the recovery interventions, maximal muscle function was assessed after 2 and 4 h by measuring jump height and isometric squat strength. Submaximal muscle function was assessed after 6 h by measuring the average load lifted during 6 sets of 10 squats at 80% of 1 repetition maximum. Intramuscular temperature (1 cm) was also recorded, and venous blood samples were analyzed for markers of metabolism, vasoconstriction, and muscle damage. CWI did not enhance recovery of maximal muscle function. However, during the final three sets of the submaximal muscle function test, participants lifted a greater load (P < 0.05, Cohen's effect size: 1.3, 38%) after CWI compared with active recovery. During CWI, muscle temperature decreased ∼7°C below postexercise values and remained below preexercise values for another 35 min. Venous blood O2 saturation decreased below preexercise values for 1.5 h after CWI. Serum endothelin-1 concentration did not change after CWI, whereas it decreased after active recovery. Plasma myoglobin concentration was lower, whereas plasma IL-6 concentration was higher after CWI compared with active recovery. These results suggest that CWI after resistance exercise allows athletes to complete more work during subsequent training sessions, which could enhance long-term training adaptations.
Abstract via Europe PMC. Copyright remains with the authors or publisher.
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