Assessments of muscle fibre distribution by non-invasive methods
0
조회
0
다운로드
0
인용
0
참고문헌
키워드
초록
The objective of the present study was to assess muscle fibre composition by non-invasive methods for various sports events. 53 males of marathon (n=5), football (n=22), baseball (n=14), basketball (n=8) and tennis (n=4) athletes volunteered to participate in this study. The following 7 tests (overhead medicine ball throw, pull up, standing broad jump, sit up, shuttle run 10 x5, push up, vertical jump) are relatively easy to perform and to gather information about fibre composition through fitness levels. It can be used to assess the performance of strength using standard tables and to receive an indication of the degree of their share of fast (type II) and slow (type I) muscle fibres. For the study, a data analysis program in Microsoft Excel was used to view the mean and standard deviation of muscle fibre types. As a result, it was possible to speculate that the ratio of muscle fibre types differed according to the type of exercise. The results were obtained after sport motor tests of the mean value of muscle fibre composition by different sports events. Fibre type distribution remained with about 74.8% type 1 and 25.2% type 2 by marathoners, 43.8% type 1 and 53.2% type 2 by football athletes, 36.3% type 1 and 63.8% type 2 by baseball athletes, 46.6% type 1 and 53.5% type 2 by basketball athletes, and 40.0% type 1 and 60.0% type 2 by tennis athletes. Through these tests, the direction of the athletes’ muscle development can be considered, and it is possible to check the muscle fibre composition of elite athletes for the improvement of performance for each sport event. Moreover, it assumes that if this test is used for children, adolescents and young athletes, it will help to design scientific and effective training programs, thereby improving athletes’ ability to perform.
Abstract
The objective of the present study was to assess muscle fibre composition by non-invasive methods for various sports events. 53 males of marathon (n=5), football (n=22), baseball (n=14), basketball (n=8) and tennis (n=4) athletes volunteered to participate in this study. The following 7 tests (overhead medicine ball throw, pull up, standing broad jump, sit up, shuttle run 10 x5, push up, vertical jump) are relatively easy to perform and to gather information about fibre composition through fitness levels. It can be used to assess the performance of strength using standard tables and to receive an indication of the degree of their share of fast (type II) and slow (type I) muscle fibres. For the study, a data analysis program in Microsoft Excel was used to view the mean and standard deviation of muscle fibre types. As a result, it was possible to speculate that the ratio of muscle fibre types differed according to the type of exercise. The results were obtained after sport motor tests of the mean value of muscle fibre composition by different sports events. Fibre type distribution remained with about 74.8% type 1 and 25.2% type 2 by marathoners, 43.8% type 1 and 53.2% type 2 by football athletes, 36.3% type 1 and 63.8% type 2 by baseball athletes, 46.6% type 1 and 53.5% type 2 by basketball athletes, and 40.0% type 1 and 60.0% type 2 by tennis athletes. Through these tests, the direction of the athletes’ muscle development can be considered, and it is possible to check the muscle fibre composition of elite athletes for the improvement of performance for each sport event. Moreover, it assumes that if this test is used for children, adolescents and young athletes, it will help to design scientific and effective training programs, thereby improving athletes’ ability to perform.
참고문헌 (27)
- Beck, J. a. B., K., "Normwerte motorischer Leistungsfaehigkeit", pp.245~ (1995), Sport u. Buch Strauß(Verlag)
- Bös, K., "Das Karlsruher Testsystem für Kinder(KATS-K)-Testmanual", Sonderheft Haltung und Bewegung, 21(4), pp.4~66 (2001)
- Bös, K., "Deutscher Motorik-Test 6-18 (DMT 6-18)", Schriften der Deutschen Vereinigung für Sportwissenschaft, 186 (2009)
- Campbell, C. J., "Muscle fiber composition and performance capacities of women", Med Sci Sports, 11(3), pp.260~265 (1979)
- Cohen J., "Statistical power analysis for the behavioral sciences. 2" (1988), Erlbaum
- Colliander, E. B., "Skeletal muscle fiber type composition and performance during repeated bouts of maximal, concentric contractions", Eur J Appl Physiol Occup Physiol, 58(1-2), pp.81~86 (1988)
- Costill, D. L., "Muscle fiber composition and enzyme activities of elite distance runners", Med Sci Sports, 8(2), pp.96~100 (1976)
- Dietrichson, P., "Conchotome and needle percutaneous biopsy of skeletal muscle", J Neurol Neurosurg Psychiatry, 50(11), pp.1461~1467 (1987)[DOI]
- Edwards, R. H., "Needle biopsy of skeletal muscle : a review of 10years experience", Muscle Nerve, 6(9), pp.676~683 (1983)
- Faul, F., "Statistical power analyses using G*Power 3.1: Tests for correlation and regression analyses", Behavior Research Methods, 41(4), pp.1149~1160 (2009)
- Fink, W. J., "Submaximal and maximal working capacity of elite distance runners. Part II. Muscle fiber composition and enzyme activities", Ann N Y Acad Sci, 301, pp.323~327 (1977)
- Gollnick, P. D., "Effect of training on enzyme activity and fiber composition of human skeletal muscle", J Appl Physiol, 34(1), pp.107~111 (1973)
- Gollnick, P. D., "Enzyme activity and fiber composition in skeletal muscle of untrained and trained men", J Appl Physiol, 33(3), pp.312~319 (1972)
- Gollnick, P. D., "The muscle fiber composition of skeletal muscle as a predictor of athletic success. An overview", Am J Sports Med, 12(3), pp.212~217 (1984)
- Gollnick, P. D., "Human soleus muscle : a comparison of fiber composition and enzyme activities with other leg muscles", Pflugers Arch, 348(3), pp.247~255 (1974)
- Henriksson, J., "Oxford Textbook of Sports Medicine, 1.1.2", pp.27~42 (1994)
- Howald, H., "Influences of endurance training on the ultrastructural composition of the different muscle fiber types in humans", Pflugers Arch, 403(4), pp.369~376 (1985)
- Leitner, M. B., "Methodisch - technische Aspekte der Muskelbiopsie", pp.1~124 (2009), University in Wien
- Oberger, J., "Sportmotorische Tests im Kindes- und Jugendalter: Normwertbildung, Auswertungsstrategien, Interpretationsmöglichkeiten", pp.6~ (2015), Scientific Publishing
- Ranvier, L., "De quelques faits relatifs a L'histologie et a la physiologie des muscles striates", Arch. Physiol, 1, pp.5~15 (1874)
- Saltin, B., "Fiber types and metabolic potentials of skeletal muscles in sedentary man and endurance runners", Ann N Y Acad Sci, 301, pp.3~29 (1977)
- Staron, R. S., "Myosin polymorphism and differential expression in adult human skeletal muscle", Comp Biochem Physiol B, 106(3), pp.463~475 (1993)
- Wang, N., "Muscle fiber types of women after resistance training--quantitative ultrastructure and enzyme activity", Pflugers Arch, 424(5-6), pp.494~502 (1993)
- Weineck, J., "Optimales Training. Leistungsphysiologische Trainingslehre unter besonderer Berücksichtigung des Kinder- und Jugendtrainings", pp.16~ (2010), Spitta
- Willimczik, K., "Motorische Entwicklung in der mittleren", späten Kindheit und im Jugendalter, 2009
- Wollny, R., "Motorische Entwicklung in der Lebensspanne – Warum lernen und optimieren manche Menschen Bewegungen besser als andere?" (2002), Hofmann
- Zierath, J. R., "Skeletal muscle fiber type: influence on contractile and metabolic properties", PLoS Biol, 2(10), pp.e348~ (2004)
