Influence of pre-exercise muscle temperature on responses to eccentric exercise

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Influence of pre-exercise muscle temperature on responses to eccentric exercise. / Nosaka, Kazunori; Sakamoto, Kei; Newton, Mike; Sacco, Paul.

In: Journal of Athletic Training, Vol. 39, No. 2, 01.04.2004, p. 132-137.

Research output: Contribution to journalJournal articleResearchpeer-review

Harvard

Nosaka, K, Sakamoto, K, Newton, M & Sacco, P 2004, 'Influence of pre-exercise muscle temperature on responses to eccentric exercise', Journal of Athletic Training, vol. 39, no. 2, pp. 132-137.

APA

Nosaka, K., Sakamoto, K., Newton, M., & Sacco, P. (2004). Influence of pre-exercise muscle temperature on responses to eccentric exercise. Journal of Athletic Training, 39(2), 132-137.

Vancouver

Nosaka K, Sakamoto K, Newton M, Sacco P. Influence of pre-exercise muscle temperature on responses to eccentric exercise. Journal of Athletic Training. 2004 Apr 1;39(2):132-137.

Author

Nosaka, Kazunori ; Sakamoto, Kei ; Newton, Mike ; Sacco, Paul. / Influence of pre-exercise muscle temperature on responses to eccentric exercise. In: Journal of Athletic Training. 2004 ; Vol. 39, No. 2. pp. 132-137.

Bibtex

@article{c4b8baca9c414daf8ec3864b620c1342,
title = "Influence of pre-exercise muscle temperature on responses to eccentric exercise",
abstract = "Objective: We tested the hypothesis that altering the pre-exercise muscle temperature would influence the magnitude of muscle damage induced by eccentric exercise. Subjects: Female students who had no experience in resistance training were placed into either a microwave treatment group (n = 10) or an icing treatment group (n = 10). Design and Setting: Subjects in each group performed 12 maximal eccentric actions of the forearm flexors of each arm on 2 separate occasions separated by 4 weeks. Before testing, the exercise arm was subjected to either passive warming (microwave) or control for the microwave treatment group or cooling (icing) or control for the icing treatment group. The control arm performed the same exercise protocol without treatment. Limbs were randomized for treatment or control and order of testing. Deep muscle temperature increased by approximately 3°C after the microwave treatment and decreased approximately 5°C after the icing treatment. Measurements: We evaluated changes in maximal isometric force and indirect markers of muscle damage, including range of motion, upper arm circumference, muscle soreness, and plasma creatine kinase activity, in the microwave and control and icing and control groups using a 2-way, repeated-measures analysis of variance. Results: All measures changed significantly (P < .01) after exercise, but neither of the treatments demonstrated significant effects on most of the variables compared with the control. Conclusions: These results suggest that pre-exercise cooling does not affect the magnitude of muscle damage in response to eccentric exercise. Similarly, pre-exercise passive muscle warming did not prove beneficial in attenuating indicators of muscle damage. Thus, any beneficial effects of warm-up exercise cannot be attributed to the effects of increased muscle temperature.",
keywords = "Creatine kinase, Icing, Maximal isometric force, Microwave diathermy, Muscle soreness, Range of motion, Warm-up",
author = "Kazunori Nosaka and Kei Sakamoto and Mike Newton and Paul Sacco",
year = "2004",
month = apr,
day = "1",
language = "English",
volume = "39",
pages = "132--137",
journal = "Journal of Athletic Training",
issn = "1062-6050",
publisher = "National Athletic Trainers Association, Inc",
number = "2",

}

RIS

TY - JOUR

T1 - Influence of pre-exercise muscle temperature on responses to eccentric exercise

AU - Nosaka, Kazunori

AU - Sakamoto, Kei

AU - Newton, Mike

AU - Sacco, Paul

PY - 2004/4/1

Y1 - 2004/4/1

N2 - Objective: We tested the hypothesis that altering the pre-exercise muscle temperature would influence the magnitude of muscle damage induced by eccentric exercise. Subjects: Female students who had no experience in resistance training were placed into either a microwave treatment group (n = 10) or an icing treatment group (n = 10). Design and Setting: Subjects in each group performed 12 maximal eccentric actions of the forearm flexors of each arm on 2 separate occasions separated by 4 weeks. Before testing, the exercise arm was subjected to either passive warming (microwave) or control for the microwave treatment group or cooling (icing) or control for the icing treatment group. The control arm performed the same exercise protocol without treatment. Limbs were randomized for treatment or control and order of testing. Deep muscle temperature increased by approximately 3°C after the microwave treatment and decreased approximately 5°C after the icing treatment. Measurements: We evaluated changes in maximal isometric force and indirect markers of muscle damage, including range of motion, upper arm circumference, muscle soreness, and plasma creatine kinase activity, in the microwave and control and icing and control groups using a 2-way, repeated-measures analysis of variance. Results: All measures changed significantly (P < .01) after exercise, but neither of the treatments demonstrated significant effects on most of the variables compared with the control. Conclusions: These results suggest that pre-exercise cooling does not affect the magnitude of muscle damage in response to eccentric exercise. Similarly, pre-exercise passive muscle warming did not prove beneficial in attenuating indicators of muscle damage. Thus, any beneficial effects of warm-up exercise cannot be attributed to the effects of increased muscle temperature.

AB - Objective: We tested the hypothesis that altering the pre-exercise muscle temperature would influence the magnitude of muscle damage induced by eccentric exercise. Subjects: Female students who had no experience in resistance training were placed into either a microwave treatment group (n = 10) or an icing treatment group (n = 10). Design and Setting: Subjects in each group performed 12 maximal eccentric actions of the forearm flexors of each arm on 2 separate occasions separated by 4 weeks. Before testing, the exercise arm was subjected to either passive warming (microwave) or control for the microwave treatment group or cooling (icing) or control for the icing treatment group. The control arm performed the same exercise protocol without treatment. Limbs were randomized for treatment or control and order of testing. Deep muscle temperature increased by approximately 3°C after the microwave treatment and decreased approximately 5°C after the icing treatment. Measurements: We evaluated changes in maximal isometric force and indirect markers of muscle damage, including range of motion, upper arm circumference, muscle soreness, and plasma creatine kinase activity, in the microwave and control and icing and control groups using a 2-way, repeated-measures analysis of variance. Results: All measures changed significantly (P < .01) after exercise, but neither of the treatments demonstrated significant effects on most of the variables compared with the control. Conclusions: These results suggest that pre-exercise cooling does not affect the magnitude of muscle damage in response to eccentric exercise. Similarly, pre-exercise passive muscle warming did not prove beneficial in attenuating indicators of muscle damage. Thus, any beneficial effects of warm-up exercise cannot be attributed to the effects of increased muscle temperature.

KW - Creatine kinase

KW - Icing

KW - Maximal isometric force

KW - Microwave diathermy

KW - Muscle soreness

KW - Range of motion

KW - Warm-up

UR - http://www.scopus.com/inward/record.url?scp=2542548965&partnerID=8YFLogxK

M3 - Journal article

AN - SCOPUS:2542548965

VL - 39

SP - 132

EP - 137

JO - Journal of Athletic Training

JF - Journal of Athletic Training

SN - 1062-6050

IS - 2

ER -

ID: 239777638