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Concentrations of blood constituents from 12 to 72 weeks of age in genetically high and low milk production lines of Friesian and Jersey cattle

Published online by Cambridge University Press:  27 March 2009

J. P. Gibson ,
G. Wiener  and
A. C. Field
J. P. Gibson
Affiliation:
AFRC Animal Breeding Research Organisation, West Mains Road, Edinburgh, EH9 3JQ
G. Wiener
Affiliation:
AFRC Animal Breeding Research Organisation, West Mains Road, Edinburgh, EH9 3JQ
A. C. Field
Affiliation:
Moredun Research Institute, 408 Gilmerton Road, Edinburgh, EH177JH
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Summary

Blood samples were collected at 12-week intervals from 12 to 72 weeks from a total of 221 growing Friesian and Jersey calves and assayed for plasma concentrations of free fatty acids (FFA), ketones, glucose, calcium, phosphorus, magnesium, copper, albumin and globulin. Sixty-six of the animals could be allocated to genetically high and 73 to genetically low milk producing lines on the basis of being sired by the ‘best’ or ‘worst’ nationally available progeny tested sires. All animals were housed indoors and fed a complete pelleted diet ad libitum. There were no differences between genetically high and low milk production lines for any blood constituent and no useful indicators of genetic merit for milk production in later life. There were no differences between breeds for metabolites related to energy status (FFA, ketones, glucose). Friesians bad higher magnesium and lower mean copper concentrations than Jerseys and had higher phosphorus concentrations up to 36 weeks. Differences between breeds and ages in mineral concentrations were not related to breed differences in the discrepancy between observed intakes and predicted requirements of minerals. Concentrations of globulins were higher and of albumin lower in Jerseys than in Friesians at 12 and 24 weeks possibly owing to slightly higher disease incidence of Jerseys in early life. There were changes with age in concentrations of all constituents except FFA. There was evidence of genetic variation within breeds and lines for mean plasma concentrations of ketones, copper and globulin. There was no evidence for differences between females and castrates for any blood constituent.

Type
Research Article
Information
The Journal of Agricultural Science , Volume 107 , Issue 2 , October 1986 , pp. 239 - 248
Copyright
Copyright © Cambridge University Press 1986

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References

Agricultural Research Council (1980). The Nutrient Requirements of Ruminant Livestock. Slough: Commonwealth Agricultural Bureaux.Google Scholar
Becker, A. (1967). Manual of procedures in quantitative genetics. Pullman: The Program in Genetics, Washington State University, 2nd edn..Google Scholar
Beisel, W. R., Pekarek, R. S. & Wannemacher, R. W. (1974). The impact of infectious disease on traco-element metabolism of the host. In Trace Element Metabolism in Animals. 2 (ed.Hookstra, W. G., Suttie, J. W., Ganther, H. E. and Mertz, W.), pp. 217–240. Baltimore: University Park Press.Google Scholar
Bowden, D. M. (1971). Non-estorified fatty acids and ketone bodies in blood as indicators of nutritional status in ruminants: a review. Canadian Journal of Animal Science 51, 1–13.CrossRefGoogle Scholar
Coggins, C. R. E. & Field, A. C. (1976). Diurnal variation in the chemical composition of plasma from lactating beef cows on three dictary energy intakes. Journalof AgriculturalScience, Cambridge 86, 596–602.Google Scholar
Dole, V. P. (1956). A relation between non-esterified fatty acids in plasma and the metabolism of glucose. Journal of Clinical Investigation 35, 150–154.CrossRefGoogle ScholarPubMed
Duncombe, W. G. (1963). The colourmetric microdetermination of long chain fatty acids. Biochemical Journal 88, 7–10.CrossRefGoogle Scholar
Field, A. C., Kamphues, J. & Woolliams, J. A. (1983). The effect of dietary intake of calcium and phosphorus on the absorption and excretion of phosphorus in chimaera-derived sheep. Journal of Agricultural Science, Cambridge 101, 597–602.CrossRefGoogle Scholar
Field, A. C. & Suttle, N. F. (1979). Effect of high potassium and low magnesium intakes on the mineral metabolism of monozygotic twin cows. Journal of Comparative Pathology 89, 431–439.CrossRefGoogle ScholarPubMed
Gibson, D. (1968). The development of a complete diet for cattle. Animal Breeding Research Organisation Report, pp. 19–24. Edinburgh: Her Majesty's Stationery Office.Google Scholar
Gibson, J. P. (1986). Efficiency and performance of genetically high and low milk producing British Friesian and Jersey cattle. Animal Production 42, 161–182.Google Scholar
Kennedy, W. L., Anderson, A. K., Bechdel, S. I. & Shigley, J. F. (1939). Studies on the composition of bovine blood as influenced by gestation, lactation and age. Journal of Dairy Science 22, 251–260.CrossRefGoogle Scholar
Kitchenham, B., Rowlands, G. J., Mansion, R. & Dew, S. M. (1975). The blood composition of dairy calves reared under conventional and rapid growth systems. British Veterinary Journal 131, 436–446.CrossRefGoogle ScholarPubMed
Massip, A., Bienfet, V. & Lomba, F. (1974). Evolution desteneurs moyennes et électrolytes du sérum sangium de veaux normaux en function de l' âge et de la periode del'annee. Annales Médecine Vétérinaire 118, 83–94.Google Scholar
Matrone, G., Peterson, W. J., Baxley, H. M. & Grinnells, C. D. (1947). Copper and iron in the blood serum of dairy cows. Journal of Dairy Science 30, 122–126.CrossRefGoogle Scholar
Milk Marketing Board (1980). British Friesian/ Holstein Bulls with Improved Contemporary Comparisons, pp. ii–iv. Thames Ditton, England: Milk Marketing Board.Google Scholar
Monteiro, L. S. (1974). Food efficiency in cattle. Animal Breeding Research Organisation Report, pp. 30–46. Edinburgh: Her Majesty's Stationery Office.Google Scholar
Oltjem, R. R., Bond, J. & Richardson, G. V. (1969). Growth and reproductive performance of bulls and heifers fed purified and natural diets. III. Blood proteins, glucose, amino acids and hair amino acid analysis (42–210 days of age). Journal of Animal Science 29, 81–87.CrossRefGoogle Scholar
Patterson, J. A., Head, H. A. & Wilcox, C. J. (1973). Age and diet effects on serum glucose and insulin in dairy calves. Journal of Dairy Science 56, 312.Google Scholar
Payne, J. M., Dew, S. M., Manston, R. & Faulkes, M. (1970). The use of a metabolic profile test in dairy herds. Veterinary Record 87, 150–158.CrossRefGoogle ScholarPubMed
Reid, R. L. (1960). The determination of ketone bodies in blood. Analyst, London 85, 265–271.Google Scholar
Rowlands, G. J. (1980). A review of variations in the concentrations of metabolites in the blood of beef and dairy cattle associated with physiology, nutrition and disease, with particular reference to the interpretation of metabolic profiles. World Review of Nutrition and Dietetics 35, 172–235.CrossRefGoogle Scholar
Rowlands, G. J., Payne, J. M., Dew, S. M. & Manston, R. (1974). Individuality and heritability of the blood composition of calves with particular referenceto selection of stock with improved growth potential. Journal of Agricultural Science, Cambridge 82, 473–481.CrossRefGoogle Scholar
Russell, W. S. (1973). Compreg User's Guide. IURC Series Report No. 5. Program Library Unit, Edinburgh Regional Computing Centre.Google Scholar
Suttle, N. F. (1983). Bovine hypocuprosis. Veterinary Annual 23, 96–103.Google Scholar
Tilakaratne, N., Alliston, J.C, Carr, W. R., Land, R. B. & Osmond, T. J. (1980). Physiological attributes as possible selection criteria for milk production. Animal Production 30, 327–340.Google Scholar
Wainman, F. W., Smith, J. S. & Dewey, P. J. S. (1975). The nutritive value for sheep of ruminant diet AA6, a complete cobbed diet containing 30 % barley straw. Journal of Agricultural Science, Cambridge 84, 109–111.CrossRefGoogle Scholar
Wiener, G. (1983). Genetic aspects of ‘production disease’ in ruminants. Proceedings 51h International Conference on Production Disease in Farm Animals. Uppsala, Sweden, pp. 57–67.Google Scholar
Woolliams, J. A., Wiener, G., Woolliams, C. & Suttle, N. F. (1985). Retention of copper in the liver of sheep genetically selected for high and low concentrations of copper in plasma. Animal Production 41, 219–226.Google Scholar