Int J Sports Med 2005; 26(4): 274-280
DOI: 10.1055/s-2004-821001
Training & Testing

© Georg Thieme Verlag KG Stuttgart · New York

Gender Differences in Peak Muscle Performance During Growth

E. Doré1 , R. Martin1 , S. Ratel1 , P. Duché1 , M. Bedu1 , E. Van Praagh1
  • 1Laboratoire de Biologie des Activités Physiques et Sportives, Université Blaise Pascal (UFRSTAPS) and Université d'Auvergne (UFR Médecine), Aubière, France
Further Information

Publication History

Accepted after revision: March 5, 2004

Publication Date:
26 August 2004 (online)

Abstract

Gender-related differences in maximal leg muscle power were examined in 496 females and 426 males aged 8 to 20 years. Cycling peak power (CPP, including the force required to accelerate the flywheel of the cycle ergometer) was measured during three sprints. Optimal velocity (Vopt, velocity at CPP) was also determined. No gender-differences were observed in anthropometric characteristics and cycling performance between 8- and 14-year-old. From age 14, however, males showed a higher CPP than females, but also a higher lean leg volume (LLV, assessed by anthropometry). Allometric relationship between CPP and LLV (CPP = a · LLV b) showed a clear gender-differentiation between 14- and 16-year-old: LLV exponent (b) was 1.05 in males vs. 0.74 in females. From 16 years onwards, analysis of covariance (ANCOVA) showed that the slopes of the CPP-LLV relationship were similar in both genders, but the intercepts differed. In other words, for a similar LLV, males showed greater CPP than females. It was suggested that this sex-related difference was due to total body fat increase, and more specifically lower-limb fat increase during puberty in girls, whilst the boys experienced increased lean body mass. Considering that the same gender-related difference was observed for optimal velocity adjusted for leg length, other factors such as fibre type variability or (and) neuromuscular activation might also be partly responsible for the higher peak muscle performance observed in males.

References

  • 1 Armstrong N, Welsman J R, Williams C A, Kirby B J. Longitudinal changes in young people's short-term power output.  Med Sci Sports Exerc. 2000;  32 1140-1145
  • 2 Arsac L M, Belli A, Lacour J-R. Muscle function during brief maximal exercise: accurate measurements on a friction-loaded cycle ergometer.  Eur J Appl Physiol. 1996;  74 100-106
  • 3 Baker J, Brown E, Hill G, Phillips G, Williams R, Davies B. Handgrip contribution to lactate production and leg power during high-intensity exercise.  Med Sci Sports Exerc. 2002;  34 1037-1040
  • 4 Billaut F, Giacomoni M, Falgairette G. Maximal intermittent cycling exericse: effects of recovery duration and gender.  J Appl Physiol. 2003;  95 1632-1637
  • 5 Carlson J S, Naughton G A. Performance characteristics of children using various braking resistances on the Wingate anaerobic test.  J Sports Med Phys Fitness. 1994;  34 362-369
  • 6 Chia M, Armstrong N, Childs D. The assessment of children's anaerobic performance using modifications of the Wingate anaerobic test.  Pediatr Exerc Sci. 1997;  9 80-89
  • 7 Cole T H. The LMS method for constructing normalized growth standards.  Eur J Clin Nutr. 1990;  44 45-60
  • 8 Davies C TM, Barnes C, Godfrey S. Body composition and maximal exercise performance in children.  Hum Biol. 1972;  44 195-214
  • 9 De Ste Croix M BA, Armstrong N, Chia M YH, Welsman J R, Parsons G, Sharpe P. Changes in short-term power output in 10- to 12-years-old.  J Sports Sci. 2001;  19 141-148
  • 10 De Ste Croix M BA, Armstrong N, Welsman J R, Sharpe P. Longitudinal changes in isokinetic leg strength in 10 - 14 years olds.  Ann Hum Biol. 2002;  29 50-62
  • 11 Doré E, Bedu M, Franca N M, Duché P, Van Praagh E. Testing peak cycling performance. Effects of braking force during growth.  Med Sci Sports Exerc. 2000;  32 493-498
  • 12 Doré E, Duché P, Rouffet D, Ratel S, Bedu M, Van Praagh E. Measurement error in short-term power testing in young people.  J Sports Sci. 2003;  21 135-142
  • 13 Esbjörnsson M, Sylven C, Holm I, Jansson E. Fast twitch fibres may predict anaerobic performance in both females and males.  Int J Sports Med. 1993;  14 257-263
  • 14 Glenmark B. Skeletal muscle fibre types, physical performance, physical activity and attitude to physical activity in women and men. A follow-up from age 16 to 27.  Acta Physiol Scand. 1994;  151 1-47
  • 15 Hautier C A, Linossier M T, Belli A, Lacour J R, Arsac L M. Optimal velocity for maximal power production in non-isokinetic cycling is related to muscle fibre type composition.  Eur J Appl Physiol. 1996;  74 114-118
  • 16 Jansson E. Age-related fiber type changes in human skeletal muscle. Maughan RJ, Shireffs SM Biochemistry of Exercise IX. Champaign, IL; Human Kinetics 1996: 297-307
  • 17 Jones P RM, Pearson J. Anthropometric determination of leg fat and muscle plus bone volumes in young male and female adults.  J Physiol. 1969;  204 63-66
  • 18 Krotkiewski M, Kral J G, Karlsson J. Effects of castration and testosterone substitution on body composition and muscle metabolism in rats.  Acta Physiol Scand. 1980;  109 233-237
  • 19 Lakomy H KA. Measurement of work and power output using friction-loaded cycle ergometers.  Ergonomics. 1986;  29 509-517
  • 20 Martin J-C, Malina R M, Spirduso W W. Effects of crank length on maximal cycling power and optimal pedalling rate of boys aged 8 - 11 years.  Eur J Appl Physiol. 2002;  86 215-217
  • 21 Nindl B C, Mahar M T, Harman E A, Patton J F. Lower and upper body anaerobic performance in male and female adolescent athletes.  Med Sci Sports Exerc. 1995;  27 235-241
  • 22 Nygaard E. Skeletal muscle fibre characteristics in young women.  Acta Physiol Scand. 1981;  112 299-304
  • 23 Oertel G. Morphometric analysis of normal skeletal muscles in infancy, childhood and adolescence.  J Neurol Sci. 1988;  88 303-313
  • 24 Petersen S R, Gaul C A, Stanton M M, Hanstock C C. Skeletal muscle metabolism during short-term, high-intensity exercise in prepubertal and pubertal girls.  J Appl Physiol. 1999;  87 2151-2156
  • 25 Preece M A, Cameron N, Donmall M C, Dunger D B, Holder A T, Preece J-B, Seth J, Sharp G, Taylor A M. The endocrinology of male puberty. Borms J, Haupsie R, Sand A, Susanne C, Hebbelinck M Human Growth and Development. New York; Plenum Press 1984: 23-37
  • 26 Rolland-Cachera M F, Cole T J, Sempé M, Tichet J, Rossignol C, Charraud A. Body Mass Index variations: centiles from birth to 87 years.  Eur J Clin Nutr. 1991;  45 13-21
  • 27 Round J M, Jones D A, Honour J W, Nevill A M. Hormonal factors in the development of differences in strength between boys and girls during adolescence: a longitudinal study.  Ann Hum Biol. 1999;  26 49-62
  • 28 Sale D G, Spriet L L. Skeletal muscle function and energy metabolism. Bar-Or O, Lamb DR, Clarkson PM Perspectives in Exercise Science and Sports Medicine. Volume 9. Exercise and the Female - A Life Span Approach. Carmel, IN; Cooper Publishing Group 1996: 289-363
  • 29 Santos A MC, Welsman J R, De Ste Croix M BA, Armstrong N. Age- and sex-related differences in optimal peak power.  Pediatr Exerc Sci. 2002;  14 202-212
  • 30 Sargeant A J. Human power output and muscle fatigue.  Int J Sports Med. 1994;  15 116-121
  • 31 Sargeant A J. The determinants of anaerobic function during growth. Van Praagh E Pediatric Anaerobic Performance. Champaign, IL; Human Kinetics 1998: 97-117
  • 32 Sargeant A J, Hoinville E, Young A. Maximum leg force and power output during short-term dynamic exercise.  J Appl Physiol. 1981;  53 1175-1182
  • 33 Seck D, Vandewalle H, Decrops N, Monod H. Maximal power and torque-velocity relationship on a cycle ergometer during the acceleration phase of a single-out exercise.  Eur J Appl Physiol. 1995;  70 161-168
  • 34 Seck D, Vandewalle H, Monod H. Puissance maximale sur ergocycle et délai d'atteinte du pic de vitesse chez l'enfant et l'adulte [maximal cycling power and time to peak velocity in children and adults].  Science et Sport (Paris). 1991;  6 253-254
  • 35 Seefeldt V, Haubenstricker J. Patterns, phases or stages: an analytical model for the study of developmental movement. Kelso JAS, Clark JE The Development of Movement Control and Coordination. New York; Wiley 1982: 309-318
  • 36 Simoneau J A, Lortie G, Boulay M R, Thibault M C, Theriault G, Bouchard C. Skeletal muscle histochemical and biochemical characteristics in sedentary male and female subjects.  Can J Physiol Pharmacol. 1985;  63 30-35
  • 37 Vandewalle H, Peres G, Heller J, Monod H. All-out anaerobic capacity test on cycle ergometers. A comparative study on men and women.  Eur J Appl Physiol. 1985;  54 222-229
  • 38 Van Praagh E, França N M. Measuring maximal short-term power output during growth. Van Praagh E Pediatric Anaerobic Performance. Champaign, IL; Human Kinetics 1998: 155-189
  • 39 Van Praagh E, Dore E. Short-term muscle power during growth and maturation.  Sports Med. 2002;  32 701-728
  • 40 Williams J H, Williams S B, Signorile J F. A constant-load ergometer for measuring peak power output and fatigue.  J Appl Physiol. 1988;  65 2343-2348
  • 41 Winter E M, Brookes F BC, Hamley E J. Maximal exercise performance and lean leg volume in men and women.  J Sports Sci. 1991;  9 3-13
  • 42 Yanagiya T, Kanehisa H, Kouzaki M, Kawakami Y, Fukunaga T. Effect of gender on mechanical power output during repeated bouts of maximal running in trained teenagers.  Int J Sports Med. 2003;  24 304-310

E. Doré

Université Blaise Pascal, UFRSTAPS

B. P. 104

63172 Aubière Cedex

France

Phone: + 33(0)473407541

Fax: + 33 (0)4 73 40 74 46

Email: Eric.DORE@univ-bpclermont.fr

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