Functional Impact of Post-exercise Cooling and Heating on Recovery and Training Adaptations: Application to Resistance, Endurance, and Sprint Exercise

被引:12
作者
Chaillou, Thomas [1 ]
Treigyte, Viktorija [2 ]
Mosely, Sarah [3 ]
Brazaitis, Marius [2 ]
Venckunas, Tomas [2 ]
Cheng, Arthur J. [3 ]
机构
[1] Orebro Univ, Sch Hlth Sci, S-70182 Orebro, Sweden
[2] Lithuanian Sports Univ, Sports Sci & Innovat Inst, LT-44221 Kaunas, Lithuania
[3] York Univ, Sch Kinesiol & Sci, Fac Hlth, Muscle Hlth Res Ctr, Toronto, ON M3J IP3, Canada
基金
加拿大自然科学与工程研究理事会; 瑞典研究理事会;
关键词
Cooling; Heating; Water immersion; Training; Muscle function; Physical performance; Temperature; Fatigue; Recovery; COLD-WATER IMMERSION; CYCLING PERFORMANCE; MUSCLE METABOLITES; POWER OUTPUT; PHYSIOLOGICAL ADAPTATIONS; MITOCHONDRIAL BIOGENESIS; THERAPY DURATION; ACTIVE RECOVERY; BLOOD LACTATE; TEAM-SPORT;
D O I
10.1186/s40798-022-00428-9
中图分类号
G8 [体育];
学科分类号
04 ; 0403 ;
摘要
The application of post-exercise cooling (e.g., cold water immersion) and post-exercise heating has become a popular intervention which is assumed to increase functional recovery and may improve chronic training adaptations. However, the effectiveness of such post-exercise temperature manipulations remains uncertain. The aim of this comprehensive review was to analyze the effects of post-exercise cooling and post-exercise heating on neuromuscular function (maximal strength and power), fatigue resistance, exercise performance, and training adaptations. We focused on three exercise types (resistance, endurance and sprint exercises) and included studies investigating (1) the early recovery phase, (2) the late recovery phase, and (3) repeated application of the treatment. We identified that the primary benefit of cooling was in the early recovery phase (< 1 h post-exercise) in improving fatigue resistance in hot ambient conditions following endurance exercise and possibly enhancing the recovery of maximal strength following resistance exercise. The primary negative impact of cooling was with chronic exposure which impaired strength adaptations and decreased fatigue resistance following resistance training intervention (12 weeks and 4-12 weeks, respectively). In the early recovery phase, cooling could also impair sprint performance following sprint exercise and could possibly reduce neuromuscular function immediately after endurance exercise. Generally, no benefits of acute cooling were observed during the 24-72-h recovery period following resistance and endurance exercises, while it could have some benefits on the recovery of neuromuscular function during the 24-48-h recovery period following sprint exercise. Most studies indicated that chronic cooling does not affect endurance training adaptations following 4-6 week training intervention. We identified limited data employing heating as a recovery intervention, but some indications suggest promise in its application to endurance and sprint exercise.
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页数:26
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共 131 条
  • [1] Post-exercise cold water immersion does not alter high intensity interval training-induced exercise performance and Hsp72 responses, but enhances mitochondrial markers
    Aguiar, Paula Fernandes
    Magalhaes, Silvia Mourao
    Teixeira Fonseca, Ivana Alice
    da Costa Santos, Vanessa Batista
    de Matos, Mariana Aguiar
    Dias Peixoto, Marco Fabricio
    Nakamura, Fabio Yuzo
    Crandall, Craig
    Araujo, Hygor Nunes
    Silveira, Leonardo Reis
    Rocha-Vieira, Etel
    Magalhaes, Flavio de Castro
    Amorim, Fabiano Trigueiro
    [J]. CELL STRESS & CHAPERONES, 2016, 21 (05) : 793 - 804
  • [2] The effect of cryotherapy on nerve conduction velocity, pain threshold and pain tolerance
    Algafly, Amin A.
    George, Keith P.
    [J]. BRITISH JOURNAL OF SPORTS MEDICINE, 2007, 41 (06) : 365 - 369
  • [3] Postexercise cold water immersion modulates skeletal muscle PGC-1α mRNA expression in immersed and nonimmersed limbs: evidence of systemic regulation
    Allan, Robert
    Sharples, Adam P.
    Close, Graeme L.
    Drust, Barry
    Shepherd, Sam O.
    Dutton, John
    Morton, James P.
    Gregson, Warren
    [J]. JOURNAL OF APPLIED PHYSIOLOGY, 2017, 123 (02) : 451 - 459
  • [4] Skeletal muscle fatigue: Cellular mechanisms
    Allen, D. G.
    Lamb, G. D.
    Westerblad, H.
    [J]. PHYSIOLOGICAL REVIEWS, 2008, 88 (01) : 287 - 332
  • [5] Cold-Water Immersion and Contrast Water Therapy: No Improvement of Short-Term Recovery After Resistance Training
    Argus, Christos K.
    Broatch, James R.
    Petersen, Aaron C.
    Polman, Remco
    Bishop, David J.
    Halson, Shona
    [J]. INTERNATIONAL JOURNAL OF SPORTS PHYSIOLOGY AND PERFORMANCE, 2017, 12 (07) : 886 - 892
  • [6] THE INFLUENCE OF EXERCISE ORDER ON BLOOD LACTATE, PERCEPTUAL, AND AFFECTIVE RESPONSES
    Bellezza, Peter A.
    Hall, Eric E.
    Miller, Paul C.
    Bixby, Walter R.
    [J]. JOURNAL OF STRENGTH AND CONDITIONING RESEARCH, 2009, 23 (01) : 203 - 208
  • [7] INFLUENCE OF MUSCLE TEMPERATURE ON MAXIMAL MUSCLE STRENGTH AND POWER OUTPUT IN HUMAN SKELETAL-MUSCLES
    BERGH, U
    EKBLOM, B
    [J]. ACTA PHYSIOLOGICA SCANDINAVICA, 1979, 107 (01): : 33 - 37
  • [8] Bishop David J, 2013, Br J Sports Med, V47 Suppl 1, pi17, DOI 10.1136/bjsports-2013-092950
  • [9] Effect of postexercise temperature elevation on postexercise glycogen metabolism of isolated mouse soleus muscle
    Blackwood, Sarah J.
    Hanya, Ester
    Katz, Abram
    [J]. JOURNAL OF APPLIED PHYSIOLOGY, 2019, 126 (04) : 1103 - 1109
  • [10] Heating after intense repeated contractions inhibits glycogen accumulation in mouse EDL muscle: role of phosphorylase in postexercise glycogen metabolism
    Blackwood, Sarah J.
    Hanya, Ester
    Katz, Abram
    [J]. AMERICAN JOURNAL OF PHYSIOLOGY-CELL PHYSIOLOGY, 2018, 315 (05): : C706 - C713