Relationship between Intramuscular and Skin Temperature and Anthropometric Consideration for Post-exercise Cryotherapy: Developing Prediction Models for Clinical Use
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OBJECTIVES To investigate the relationships among intramuscular cooling rates during (IM cooling rate) and after cold water immersion (CWI) (Post-IM cooling rate), skin tissue cooling rate during CWI (skin cooling rate), and anthropometric characteristics, and develop prediction models to assist clinical decision making. METHODS After a 30-min cycling trial, 16 young healthy adults received a CWI treatment (10 °C) until either intramuscular thigh temperature (2 cm sub-adipose) of the rectus femoris decreased 7 °C below preexercise level or 30 minutes was reached. Temperatures were recorded using skin and implantable finewire thermocouples. Before the cycling trial, %BF, anterior thigh adipose tissue thickness, muscle thickness, total thigh volume, and thigh circumference were measured. Pearson’s correlation coefficients were used to determine significant predictors of IM and Post-IM cooling rates (cooling rate: the amount of temperature reduction per minute). All predictors, including skin cooling rate, %BF, adipose tissue thickness, muscle thickness, total thigh volume, and thigh circumference, were included in multiple linear regression models to figure out factors that best predict the IM and Post-IM cooling rates. RESULTS Correlation analysis demonstrated significant correlations between IM cooling rate and skin cooling rate (r=.85), %BF (r=-.79), and adipose tissue thickness (r=-.79), and between Post-IM cooling rate and thigh circumference (r=-.68), adipose tissue thickness (r=-.58), total thigh volume (r=-.56), and %BF (r=-.53). Regression models identified skin cooling rate and %BF to have the greatest predictability for IM cooling rate (R2=.82) and muscle thickness and thigh circumference to have the greatest predictability for the Post-IM cooling rate (R2=.68). CONCLUSIONS This study provides justification for the use of skin cooling rates during CWI and %BF to estimate IM cooling rate and muscle thickness and thigh circumference to estimate Post-IM cooling rate. These findings will help practitioners to determine the duration of CWI treatment after exercise.
Abstract
OBJECTIVES To investigate the relationships among intramuscular cooling rates during (IM cooling rate) and after cold water immersion (CWI) (Post-IM cooling rate), skin tissue cooling rate during CWI (skin cooling rate), and anthropometric characteristics, and develop prediction models to assist clinical decision making. METHODS After a 30-min cycling trial, 16 young healthy adults received a CWI treatment (10 °C) until either intramuscular thigh temperature (2 cm sub-adipose) of the rectus femoris decreased 7 °C below preexercise level or 30 minutes was reached. Temperatures were recorded using skin and implantable finewire thermocouples. Before the cycling trial, %BF, anterior thigh adipose tissue thickness, muscle thickness, total thigh volume, and thigh circumference were measured. Pearson’s correlation coefficients were used to determine significant predictors of IM and Post-IM cooling rates (cooling rate: the amount of temperature reduction per minute). All predictors, including skin cooling rate, %BF, adipose tissue thickness, muscle thickness, total thigh volume, and thigh circumference, were included in multiple linear regression models to figure out factors that best predict the IM and Post-IM cooling rates. RESULTS Correlation analysis demonstrated significant correlations between IM cooling rate and skin cooling rate (r=.85), %BF (r=-.79), and adipose tissue thickness (r=-.79), and between Post-IM cooling rate and thigh circumference (r=-.68), adipose tissue thickness (r=-.58), total thigh volume (r=-.56), and %BF (r=-.53). Regression models identified skin cooling rate and %BF to have the greatest predictability for IM cooling rate (R2=.82) and muscle thickness and thigh circumference to have the greatest predictability for the Post-IM cooling rate (R2=.68). CONCLUSIONS This study provides justification for the use of skin cooling rates during CWI and %BF to estimate IM cooling rate and muscle thickness and thigh circumference to estimate Post-IM cooling rate. These findings will help practitioners to determine the duration of CWI treatment after exercise.
참고문헌 (28)
- Nogueira NM, "Effects of local cryotherapy for recovery of delayed onset muscle soreness and strength following exercise-induced muscle damage : systematic review and meta-analysis", Sport Sci Health, 16(1), pp.1~11 (2020)
- Eston R, "Effects of cold water immersion on the symptoms of exercise-induced muscle damage", Journal of Sports Sciences, 17(3), pp.231~238 (1999)
- Algafly AA, "The effect of cryotherapy on nerve conduction velocity, pain threshold and pain tolerance", British Journal of Sports Medicine, 41(6), pp.365~369 (2007)
- Swenson C, "Cryotherapy in sports medicine", Scandinavian Journal of Medicine & Science in Sports, 6(4), pp.193~200 (1996)
- Burgess TL, "The efficacy of cryotherapy on recovery following exercise-induced muscle damage : invited review article", International SportMed Journal, 11(2), pp.258~277 (2010)
- Bailey DM, "Influence of cold-water immersion on indices of muscle damage following prolonged intermittent shuttle running", Journal of Sports Sciences, 25(11), pp.1163~1170 (2007)
- Roberts LA, "Post-exercise cold water immersion attenuates acute anabolic signalling and long-term adaptations in muscle to strength training", The Journal of Physiology, 593(18), pp.4285~4301 (2015)
- Mawhinney C, "Cold Water Mediates Greater Reductions in Limb Blood Flow than Whole Body Cryotherapy", Med Sci Sports Exerc, 49(6), pp.1252~1260 (2017)
- Meeusen R, "The Use of Cryotherapy in Sports Injuries", Sports Medicine, 3(6), pp.398~414 (1986)
- Freitag L, "Intramuscular Temperature Changes in the Quadriceps Femoris Muscle After Post-Exercise Cold-Water Immersion(10°C for 10 min) : A Systematic Review With Meta-Analysis", Frontiers in Sports and Active Living, 3, pp.100~ (2021)
- Merrick MA, "Cold Modalities With Different Thermodynamic Properties Produce Different Surface and Intramuscular Temperatures", J Athl Train, 38(1), pp.28~33 (2003)
- Myrer WJ, "Muscle Temperature Is Affected by Overlying Adipose When Cryotherapy Is Administered", J Athl Train, 36(1), pp.32~36 (2001)
- Stephens JM, "Effect of Body Composition on Physiological Responses to Cold-Water Immersion and the Recovery of Exercise Performance", International Journal of Sports Physiology and Performance, 13(3), pp.382~389 (2018)
- Haman F, "Shivering thermogenesis in humans : Origin, contribution and metabolic requirement", Temperature, 4(3), pp.217~226 (2017)
- Stocks JM, "Human Physiological Responses to Cold Exposure", Aviation, Space, and Environmental Medicine, 75(5), pp.444~457 (2004)
- Rupp KA, "Intramuscular Temperature Changes During and After 2 Different Cryotherapy Interventions in Healthy Individuals", Journal of Orthopaedic & Sports Physical Therapy (2021)[DOI]
- Rech N, "Predictive Ability of Body Fat Percentage and Thigh Anthropometrics on Tissue Cooling During Cold-Water Immersion", Journal of Athletic Training, 56(6), pp.548~554 (2020)
- Jutte LS, "The relationship between intramuscular temperature, skin temperature, and adipose thickness during cryotherapy and rewarming", Archives of Physical Medicine and Rehabilitation, 82(6), pp.845~850 (2001)
- Jackson AS, "Practical Assessment of Body Composition", The Physician and Sportsmedicine, 13(5), pp.76~90 (1985)
- Tothill P, "Estimation of thigh muscle and adipose tissue volume using magnetic resonance imaging and anthropometry", Journal of Sports Sciences, 20(7), pp.563~576 (2002)
- Selkow NM, "Microvascular Perfusion and Intramuscular Temperature of the Calf During Cooling", Med Sci Sports Exerc, 44(5), pp.850~856 (2012)
- Swain DP, "Target heart rates for the development of cardiorespiratory fitness", Med Sci Sports Exerc, 26(1), pp.112~116 (1994)
- Vromans BA, "Cold water immersion settings for reducing muscle tissue temperature : a linear dose-response relationship", J Sports Med Phys Fitness, 59(11), pp.1861~1869 (2019)
- Tipton MJ, "Cold water immersion: kill or cure?", Experimental Physiology, 102(11), pp.1335~1355 (2017)
- Otte JW, "Subcutaneous adipose tissue thickness alters cooling time during cryotherapy", Archives of Physical Medicine and Rehabilitation, 83(11), pp.1501~1505 (2002)
- Bleakley CM, "Is it possible to achieve optimal levels of tissue cooling in cryotherapy?", Physical Therapy Reviews, 15(4), pp.344~350 (2010)
- Long BC, "Exercise and Quadriceps Muscle Cooling Time", J Athl Train, 40(4), pp.260~263 (2005)
- Myrer JW, "Temperature Changes in the Human Leg During and After Two Methods of Cryotherapy", J Athl Train, 33(1), pp.25~29 (1998)