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Options to reduce vulnerability to metabolic stress by genetic selection

Published online by Cambridge University Press:  27 February 2018

J. E. Pryce
Affiliation:
Animal Biology Division, SAC, Bush Estate, Penicuik EH26 OPH
P. Løvendahl
Affiliation:
department of Animal Breeding and Genetics, Research Centre Foulum, DK-8830 Tjele, Denmark
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Abstract

Genetic selection for milk production has been very successful. However to achieve high yields, the metabolic load on dairy cows is believed to be substantial. If the size of this load is large enough then the animal may become ‘metabolically stressed’. Signs of this may include some sort of distortion of normal physiological function. There is evidence from both population studies and research herds to suggest that intense selection for milk yield has led to a deterioration in some aspects of health and fertility. Genetic correlation estimates between production and measures of fertility are unfavourable. As an example, calving intervals of high merit animals from Langhill are on average 12 days longer than those of average genetic merit, which is mostly due to a delay in days to first heat. It is suggested that some aspects of health and fertility problems in high genetic merit animals are a consequence, in part, of so-called metabolic stress. Future breeding goals should be broadened to include a broad spectrum of traits related to efficient milk production, in addition to either health and fertility traits themselves, or traits believed to be precursors of them, such as those related to metabolic stress. The complexity and subjectivity of metabolic stress and its components makes it very difficult to include in future breeding goals. However, traits related to energy balance, such as some measures of condition score, dry-matter intake and live weight may be useful in breeding programmes where one of the goals is to alleviate metabolic stress.

Type
Research Article
Copyright
Copyright © British Society of Animal Science 1999

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References

Arendonk, J. A. M. van, Hovenier, R. and Boer, W. de. 1989. Phenotypic and genetic association between fertility and production in dairy cows. Livestock Production Science 21: 112.CrossRefGoogle Scholar
Arendonk, J. A. M. van, Nieuwhof, G. J., Vos, H. and Korver, S. 1991. Genetic aspects of feed intake and efficiency in lactating dairy heifers. Livestock Production Science 29:263275.CrossRefGoogle Scholar
Bagnato, A. and Oltenacu, P. A. 1993. Genetic studies of fertility traits and production in different parities in Italian Friesian cattle. Journal of Animal Breeding and Genetics 110: 126134.CrossRefGoogle ScholarPubMed
Berglund, B. and Danell, B. 1987. Live weight changes, feed consumption, milk yield and energy balance during the first period of lactation. Acta Agriculturae Scandinavica 37: 497509.CrossRefGoogle Scholar
Boichard, D. and Manfredi, E. 1994. Genetic analysis of conception rate in French Holstein cattle. Acta Agriculturae Scandinavica 44:138145.CrossRefGoogle Scholar
Campos, M. S., Wilcox, C. J., Beceril, C. M. and Diz, A. 1994. Genetic parameters for yield and reproductive traits of Holstein and Jersey cattle in Florida. Journal of Dairy Science 77: 867873.CrossRefGoogle ScholarPubMed
Detilleux, J.C, Grohn, Y. T. and Quaas, R. L. 1994. Effects of clinical ketosis on test day milk yields in Finnish Ayrshire cattle. Journal of Dairy Science 77:33163323.CrossRefGoogle ScholarPubMed
Domecq, J. J., Skidmore, A. L., Lloyd, J. W. and Kaneene, J. B. 1997. Relationship between body condition scores and conception at first artificial insemination in a large dairy herd of high yielding Holstein cows. Journal of Dairy Science 80:113120.CrossRefGoogle Scholar
Groen, A. F. and Korver, S. 1989. The economic value of feed intake capacity of dairy cows. Livestock Production Science 22:269281.CrossRefGoogle Scholar
Groen, A. F., Steine, T., Colleau, J. J., Pedersen, J., Pribyl, J. and Reinsch, N. 1997. Economic values in dairy cattle breeding, with special reference to functional traits. Report of an EAAP working group. Livestock Production Science 49: 121.CrossRefGoogle Scholar
Gröhn, Y. T., Hertl, J. A. and Hárman, J. L. 1994. Effect of early lactation milk yield on reproductive disorders in dairy cows. American Journal of Veterinary Research 55:15211528.CrossRefGoogle ScholarPubMed
Hoekstra, J., Lugt, A. W. van der, Werf, J. H. J. van der and Ouweltjes, W. 1994. Genetic and phenotypic parameters for milk production and fertility traits in upgraded dairy cattle. Livestock Production Science 40: 225232.CrossRefGoogle Scholar
Jamrozik, J., Schaeffer, L. R. and Dekkers, J. C. M. 1996. Random regression models for production traits in Canadian Holsteins. Proceedings of an Interbull open meeting, Veldhoven, 23-24 June, 1996.Google Scholar
Jones, H. E., White, I. M. S. and Brotherstone, S. 1999. Genetic evaluation of Holstein Friesian sires for daughter condition-score changes using a random regression model. Animal Science 68:467475.CrossRefGoogle Scholar
Knight, C. H. and Sorensen, A. 1998. Fertility parameters of cows with extended lactations. Nottingham cattle fertility conference 1998, Nottingham University and BCVA.Google Scholar
Koenen, E. P.C. and A. F., Groen 1998. Genetic evaluation of body weight of lactating Holstein heifers using body measurements and conformation traits. Journal of Dairy Science 81:17091713.CrossRefGoogle ScholarPubMed
Komarigiri, M. V. S. and Erdman, R. A. 1997. Factors affecting body tissue mobilisation in early lactation dairy cows. 1. Effect of dietary protein on mobilisation of body fat and protein. Journal of Dairy Science 80:929937.CrossRefGoogle Scholar
Lowman, B. G., Scott, N. and Somerville, S. 1976. Condition scoring of cattle. Revised edition. Bulletin of East Scotland College of Agriculture, no. 6.Google Scholar
Lyons, D.T., Freeman, A. E. and Kuck, A. L. 1991. Genetics of health traits. Journal of Dairy Science 74:10921100.CrossRefGoogle ScholarPubMed
Mäntysaari, E. A., Grohn, Y. T. and Quaas, R. L. 1991. Clinical ketosis, phenotypic and genetic correlations between occurrences and with milk yield. Journal of Dairy Science 74:39853993.CrossRefGoogle ScholarPubMed
Nielsen, B. L. 1998. Perceived welfare issues in dairy cattle, with special emphasis on metabolic stress. In Metabolic stress in dairy cows (ed. Oldham, J. D., Simm, G., Groen, A. F., Nielsen, B. L., Pryce, J. E. and T. L. J. Lawrence, ), pp. 000000. British Society of Animal Science occasional publication no. 24.Google Scholar
Nielsen, B. L. and Lawrence, A. B. 1996. Is metabolic load necessarily stressful? Proceedings of the XIX world buiatrics congress, Edinburgh 1996, vol. 1, pp. 7982.Google Scholar
Nielsen, U. K., Federsen, G. A., Pedersen, J. and Jensen, J. 1997. Genetic correlations among health traits in different lactations. Proceedings of an international workshop on genetic improvement of functional traits in cattle, Uppsala, Sweden, Interbull bulletin no. 15.Google Scholar
Oldham, J. D., Nielsen, B. L. and Whitaker, D. 1996. Identification and analysis of the causes of metabolic stress. BBSRC dairy cow welfare workshop, 30 April-1 May, Leeds.Google Scholar
Pösö, J. and E. A., Mäntysaari 1996. Relationships between clinical mastitis, somatic cell score and the production for the first three lactations of Finnish Ayrshires. Journal of Dairy Science 79:12841291.CrossRefGoogle Scholar
Pryce, J. E., Nielsen, B. L., Veerkamp, R. F. and Simm, G. 1999. Genotype and feeding system effects and interactions for health and fertility in dairy cattle. Livestock Production Science 57:193201.CrossRefGoogle Scholar
Pryce, J. E., Veerkamp, R. F., Thompson, R., Hill, W. G. and Simm, G. 1997. Genetic aspects of common health disorders and measures of fertility in Holstein Friesian dairy cattle. Animal Science 65:353360.CrossRefGoogle Scholar
Rasmussen, L. K., Nielsen, B. L., Pryce, J. E., Mottram, T. T. and Veerkamp, R. F. 1999. Risk factors associated with the incidence of ketosis in dairy cows. Animal Science 68: 379386.CrossRefGoogle Scholar
Ruane, J., Klemetsdal, G. and Heringstad, B. 1997. Health traits data for dairy cattle in Norway. Proceedings of the international workshop on genetic improvement of functional traits in cattle, Uppsala, Sweden 1997. Interbull bulletin no. 15.Google Scholar
Simm, G. 1998. Genetic improvement of cattle and sheep. Farming Press, Ipswich.Google Scholar
Uribe, H. A., Kennedy, B. W., Martin, S. W. and Keltőn, D. F. 1995. Genetic parameters for common health disorders of Holsteins. Journal of Dairy Science 78:421430.CrossRefGoogle Scholar
Veerkamp, R. F. 1998. Selection for economic efficiency of dairy cattle using information on live weight and feed intake: a review. Journal of Dairy Science 81:11091119.CrossRefGoogle ScholarPubMed
Veerkamp, R. F. and Brotherstone, S. 1997. Genetic correlations between linear type traits, food intake, live weight and condition score in Holstein Friesian dairy cattle. Animal Science 64: 385392.CrossRefGoogle Scholar
Veerkamp, R. F. and Emmans, G. C. 1995. Sources of genetic variation in energetic efficiency of dairy cows. Livestock Production Science 44:8797.CrossRefGoogle Scholar
Veerkamp, R. F., Emmans, G.C., Cromie, A. R. and Simm, G. 1995. Variance components for residual food intake in dairy cows. Livestock Production Science 41:111120.CrossRefGoogle Scholar
Visscher, P. M., Bowman, P. J. and Goddard, M.E. 1994. Breeding objectives for pasture based dairy production systems. Livestock Production Science 40:123137.CrossRefGoogle Scholar
Warmer, S. S., McNamara, J. P., Hillers, D. K. and Brown, D. L. 1994. Validation of indirect measures of body fat in lactating cows. Journal of Dairy Science 77:25702579.Google Scholar