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Effects of age and breed of beef bulls on growth parameters, carcass and muscle characteristics

Published online by Cambridge University Press:  09 March 2007

C. Jurie*
Affiliation:
Unité de Recherches sur les Herbivores, INRA, Centre Clermont-Ferrand – Theix, 63122 Saint-Genès-Champanelle, France
J.-F. Martin
Affiliation:
Station de Recherches sur la Viande, INRA, Centre Clermont-Ferrand – Theix, 63122 Saint-Genès-Champanelle, France
A. Listrat
Affiliation:
Unité de Recherches sur les Herbivores, INRA, Centre Clermont-Ferrand – Theix, 63122 Saint-Genès-Champanelle, France
R. Jailler
Affiliation:
Unité de Recherches sur les Herbivores, INRA, Centre Clermont-Ferrand – Theix, 63122 Saint-Genès-Champanelle, France
J. Culioli
Affiliation:
Station de Recherches sur la Viande, INRA, Centre Clermont-Ferrand – Theix, 63122 Saint-Genès-Champanelle, France
B. Picard
Affiliation:
Unité de Recherches sur les Herbivores, INRA, Centre Clermont-Ferrand – Theix, 63122 Saint-Genès-Champanelle, France
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Abstract

The effects of age and breed on growth parameters, carcass and muscle characteristics of bulls, slaughtered at 15, 19 and 24 months of age, were analysed in four French breeds: Aubrac (AU), Charolais (CH), Limousin (LI), and Salers (SA). Muscle characteristics were determined in three muscles: longissimus thoracis (LT), semitendinosus (ST) and triceps brachii (TB). They included: (1) the % frequency, cross-sectional area and % area of fibre types, which were classified according to the contractile nature of the fibres and their metabolic properties (SO slow oxidative, FOG fast oxidative glycolytic and FG fast glycolytic); (2) the isocitrate dehydrogenase (ICDH) and lactate dehydrogenase (LDH) activities, representative of oxidative and glycolytic metabolism respectively; and (3) the total and insoluble collagen contents.

In the four breeds, the average daily gain and the food efficiency decreased with age (P < 0·001). The carcass characteristics (muscle, fat and bone weights) increased with age (P < 0·001). The increase of muscle carcass weight with slaughter age was in parallel with the increase in cross-sectional area of individual muscle fibres. Oxidative fibre (SO and FOG) areas increased more between 15 and 24 months than glycolytic fibre (FG) area. Differences between muscles in increases in areas of muscle fibres were consistent: the increase was greater for TB than ST and LT. The muscles studied became more slow and more oxidative above 19 months of age, as evidenced by the fact that the SO % frequency (P < 0·001) and % area (P < 0·001) and ICDH activity (P < 0·05) increased, and LDH activity decreased (P < 0·01). Insoluble collagen content decreased between 15 and 19 months (P < 0·001), and both total (P < 0·01) and insoluble (P < 0·001) collagen contents increased from 19 months.

So carcass characteristics were modified between 15 and 24 months, and muscle characteristics were especially modified from 19 months of age. In addition, differences in slaughter data between breeds were clear and consistent, whereas those of muscle characteristics were few and not consistent.

Type
Research Article
Copyright
Copyright © British Society of Animal Science 2005

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References

Ansay, M. 1974 Individualité musculaire chez le bovin: étude de l'équipement enzymatique de quelques muscles. Annales de Biologie Animale, Biochimie et Biophysique 14: 471486.CrossRefGoogle Scholar
Bailey, A. J. and Light, N. D. 1989. Connective tissue in meat and meat products. Elsevier Applied Science, London.Google Scholar
Brandstetter, A. M., Picard, B. and Geay, Y. 1998. Muscle fibre characteristics in four muscles of growing bulls. I. Postnatal differentiation. Livestock Production Science 53: 1523.CrossRefGoogle Scholar
Briand, M., Talmant, A., Briand, Y., Monin, G. and Durand, R. 1981. Metabolic types of muscle in the sheep. I. Myosin ATPase, glycolytic and mitochondrial enzyme activities. European Journal of Applied. Physiology 46: 347358.CrossRefGoogle ScholarPubMed
Cross, H. R., Schenbacher, B. D. and Crouse, J. D. 1984. Sex, age and breed related changes in bovine testosterone and intramuscular collagen. Meat Science 10: 187195.CrossRefGoogle ScholarPubMed
Crouse, J. D., Koohmaraie, M. and Seideman, S. D. 1991. The relationship of muscle fibre size to tenderness of beef. Meat Science 30: 295302.CrossRefGoogle ScholarPubMed
Dransfield, E., Martin, J.-F., Bauchart, D., Abouelkaram, S., Lepetit, J., Culioli, J., Jurie, C. and Picard, B. 2003. Meat quality and composition of three muscles from French cull cows and young bulls. Animal Science 76: 387399.CrossRefGoogle Scholar
Dymnicki, E., Oprzadek, J., Reklewski, Z., Sloniewski, K., Oprzadek, A. and Krzyzewski, J. 2001. Growth rate, feed intake, and feed conversion in fattening bulls of main beef breeds kept in Poland. Animal Science Papers and Reports – Polish Academy of Sciences, Institute of Genetics and Animal Breeding Jastrzębiec 19: 231239.Google Scholar
Geay, Y. 1986. Production de viande de taurillons. In Production de viande bovine (ed. Micol, D.), pp. 151168. INRA, Paris.Google Scholar
Geay, Y. and Renand, G. 1994. Effect of genotype and managementon muscle characteristics and sensorial meat qualities in cattle. Rencontres de la Recherche sur les Ruminants 1: 177182.Google Scholar
Geay, Y. and Robelin, J. 1979. Variation of meat production capacity in cattle due to genotype and level of feeding: genotype-nutrition interaction. Livestock Production Science 6: 263276.CrossRefGoogle Scholar
Guth, L. and Samaha, F. J. 1970. Procedure for the histochemical demonstration of actomyosin ATPase. Experience Neurology 28: 365367.CrossRefGoogle ScholarPubMed
Institut National de la Recherche Agronomique. 1988. Alimentation des bovins, ovins, et caprins. INRA, Paris.Google Scholar
Jurie, C., Picard, B. and Geay, Y. 1999. Changes in the metabolic and contractile characteristics of muscle in male cattle between 10 and 16 months of age. The Histochemical Journal 31: 117122.CrossRefGoogle ScholarPubMed
Jurie, C., Robelin, J., Picard, B., Renand, G. and Geay, Y. 1995. Postnatal changes in the biological characteristics of semitendinosus muscle in male Limousin cattle. Meat Science 41: 125135.CrossRefGoogle ScholarPubMed
Lexell, J. and Downham, D. 1992. What is the effect of ageing on type 2 muscle fibres? Journal of Neurological Science 107: 250251.CrossRefGoogle ScholarPubMed
Listrat, A., Rakadjiyski, N., Jurie, C., Picard, B., Touraille, C. and Geay, Y. 1999. Effect of the type of diet on muscle characteristics and meat palatability of growing Salers bulls. Meat Science 53: 115124.CrossRefGoogle ScholarPubMed
Maltin, C. A., Sinclair, K. D., Warriss, P. D., Grant, C. M., Porter, A. D., Delday, M. I. and Warkup, C. C. 1998. The effects of age at slaughter, genotype and . nishing system on the biochemical properties, muscle fibre type characteristics and eating quality of bull beef from suckled calves. Animal Science 66: 341348.CrossRefGoogle Scholar
Pearse, A. G. E. 1968. Histochemistry: theoretical and applied, volume 2, second edition. Churchill, J. A., London.Google Scholar
Peter, J. B., Barnard, R. J., Edgerton, V. R., Gillepsie, C. A. and Stempel, K. E. 1972. Metabolic profiles of three fiber types of skeletal muscle in guinea pigs and rabbits. Biochemistry 11: 26272633.CrossRefGoogle Scholar
Picard, B., Duris, M. P. and Jurie, C. 1998. Classification of bovine muscle fibres by different histochemical techniques. Histochemical Journal 30: 473479.CrossRefGoogle ScholarPubMed
Punkt, K., Naupert, A. and Asmussen, G. 2004. Differentiation of rat skeletal muscle fibres during development and ageing. Acta Histochemica 106: 145154.CrossRefGoogle ScholarPubMed
Robelin, J. 1986. Bases physiologiques de la production de viande: croissance et développement des bovins. In Production de viande bovine (ed. Micol, D.), pp. 3560. INRA, Paris.Google Scholar
Robelin, J. and Geay, Y. 1975. Estimation de la composition des carcasses de jeunes bovins à partir de la composition d'un morceau monocostal prélevé au niveau de la 11ème côte. I. Composition anatomique de la carcasse. Annales de Zootechnie 24: 391402.CrossRefGoogle Scholar
Saltin, B. and Gollnick, P. D. 1983. Skeletal muscle adaptability: significance for metabolism and performance. In Handbook of physiology. Section 10: skeletal muscle (ed. Peachey, L. D.), pp. 555631. American Physiology Society, Bethesda, MD.Google Scholar
Statistical Analysis Systems Institute. 1996. SAS/STAT guide for personal computers. SAS Institute Inc., Cary, NC.Google Scholar
Vestergaard, M., Oksbjerg, N. and Henckel, P. 2000. Influence of feeding intensity, grazing and finishing feeding on muscle fibre characteristics and meat colour of semitendinosus, longissimus dorsi and supraspinatus muscles of young bulls. Meat Science 54: 177185.CrossRefGoogle ScholarPubMed
Wegner, J., Albrecht, E., Fieldler, I., Teuscher, F., Papstein, H.-J. and Ender, K. 2000. Growth- and breed-related changes of muscle fiber characteristics in cattle. Journal of Animal Science 78: 14851496.CrossRefGoogle ScholarPubMed