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Influence of dietary protein of diets given in late gestation and during lactation on protein content and oestrogen concentrations in the colostrum and milk of gilts

Published online by Cambridge University Press:  02 September 2010

H. Y. Al-Matubsi ,
G. Bervanakis ,
S. M. Tritton ,
R. G. Campbell  and
R. J. Fairclough
H. Y. Al-Matubsi
Affiliation:
Centre for Bioprocessing and Food Technology, Victoria University of Technology, Werribee Campus, PO Box 14428 MCMC Melbourne, Victoria 8001, Australia
G. Bervanakis
Affiliation:
Centre for Bioprocessing and Food Technology, Victoria University of Technology, Werribee Campus, PO Box 14428 MCMC Melbourne, Victoria 8001, Australia
S. M. Tritton
Affiliation:
Rhone Poulenc Animal Nutrition, West Footscray, Victoria 3012, Australia
R. G. Campbell
Affiliation:
Bunge Meat Industries, PO Box 78, Corowa, NSW 2646, Australia
R. J. Fairclough
Affiliation:
Department of Biomedical Sciences, Victoria University of Technology, St Albans Campus, PO Box 14428 MCMC Melbourne, Victoria 8001, Australia
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Abstract

Forty first cross hybrid gilts were used to study the effect of dietary protein during lactation on free amino acid, protein and total oestrogen concentrations in colostrum and milk. The diets were formulated to contain similar levels of digestible energy (DE) but with either 236 or 186 g protein per kg and 13·3 and 8·1 g lysine per kg air-dried diet respectively. Both diets were offered at 2·5 kg/day for 1 week prior to farrowing and ad libitum throughout a 24-day lactation (no. = 20 gilts per treatment). Colostrum and milk were collected manually at 3h (colostrum), 3, 7, 14 and 22 days (milk) post partum. Free amino acid concentrations in colostrum and milk were determined by high-performance liquid chromatography following derivatization of the amino acids by 9-fluorenylmethyl chloroformate. The lysine and glutamic acid concentrations in colostrum were the most abundant free amino acids followed by tryptophan and taurine in order of decreasing abundance. Milk free taurine concentrations increased to the greatest extent among all free amino acids over the 21 days of lactation. Gilts' mature milk was rich in free taurine, glutamic acid, glycine and lysine. During the first 3 h post partum, the protein content of colostrum was unaffected by dietary protein. However, milk protein content over 7 to 21 days of lactation was significantly higher in gilts offered the higher protein diet (P < 0·001). Total solids in colostrum and milk was not significantly affected by dietary protein. At 3h and 3 days post partum the concentrations of total oestrogen in colostrum and milk, determined by radioimmunoassay, were significantly higher in gilts offered the high protein diet (P < 0·05). These finding indicate that a high protein diet in late gestation and during lactation can influence protein content, amino acid and oestrogen concentrations of milk in gilts.

Keywords

giltscolostrummilk compositionoestrogensdietary protein
Type
Research Article
Information
Animal Science , Volume 67 , Issue 1 , August 1998 , pp. 139 - 145
Copyright
Copyright © British Society of Animal Science 1998

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References

Agricultural Research Council. 1981. The nutrient requirements of pigs. Commonwealth Agricultural Bureaux, Slough, UK.Google Scholar
Ash, R. W. and Heap, R. B. 1975. Oestrogen, progesterone and corticosteroid concentrations in peripheral plasma of sows during pregnancy, parturition, lactation and after weaning. Journal of Endocrinology 64:141–154.CrossRefGoogle ScholarPubMed
Atwood, C. S. and Hartmann, P. E. 1992. Collection of fore and hind milk from the sow and changes in milk composition during lactation. Journal of Daily Research 59: 287–298.Google Scholar
Backer, D. H., Becker, D. E., Jensen, A. H. and Harman, B. G. 1970. Protein source and level for pregnant gilts: a comparison of corn, opaque-2 corn and corn-soybean meal diets. Journal of Animal Science 30:364–367.CrossRefGoogle Scholar
Bate, L. A. and Hacker, R. R. 1982. Oestrogens and piglet viability. II. Effect of oestrogen on piglet viability. Journal of Animal Science 54:1017–1022.Google Scholar
Bengtsson, G. 1972. Sow colostral free amino acids and their importance for the newborn piglets. Ada Veterinaria Scandinavica 13: 7–13.Google Scholar
Brown, J. B., Falconer, C. W. A. and Strong, J. A. 1959. Urinary oestrogens of adrenal origin in women with breast cancer. Journal of Endocrinology 19: 52–63.CrossRefGoogle ScholarPubMed
Chen, S. Y., Mello, J. P. F. D., Elsley, F. W. H. and Taylor, A. G. 1978. Effect of dietary lysine levels on performance, nitrogen metabolism and plasma amino acid concentrations of lactating sows. Animal Production 27:331–344.Google Scholar
Edquist, L. E., Einarsson, S. and Settergren, I. 1974. Ovarian activity and peripheral plasma levels of oestrogen and progesterone in the lactating sow. Theriogenology 1: 43–49.CrossRefGoogle Scholar
Einarsson, S., Josefsson, B., Moller, P. and Sanchez, D. 1987. Separation of amino-acid enantiomers and chiral amines using pre-coloum derivatization with (+)−1−(9-fluorenyl)-ethyl chloroformate and reversed-phase liquid chromatography. Analytical Chemistry 59:1191–1195.Google Scholar
English, P., Smith, W. and MacClean, A. 1977. The sow improving her efficiency, pp. 170–190. Farming Press Ltd, Great Britain.Google Scholar
Fahmy, M. N. 1972. Comparative study of colostrum and milk composition of seven breeds of swine. Canadian Journal of Animal Science 52:621–627.CrossRefGoogle Scholar
Fanner, C., Houtz, S. K. and Hagen, D. R. 1987. Oestrogen concentration in sow milk during and after parturition. Journal of Animal Science 64:1086–1089.Google Scholar
Hillbrand, F. W. and Elsaesser, F. 1983. Concentrations of progesterone in the backfat of pigs during the oestrous cycle and after ovariectomy. Journal of Reproduction and Fertility 69: 73–80.CrossRefGoogle ScholarPubMed
Jo, T., Terada, N., Saji, F. and Tanizawa, O. 1993. Inhibitory effects of estrogen, progesterone, androgen and glucocorticoid on death of neonatal mouse uterine epithelial cells induced to proliferate by estrogen. Journal of Steroid Biochemistry and Molecular Biology 46: 25–32.CrossRefGoogle ScholarPubMed
King, R. H., Toner, M. S., Dove, H., Atwood, C. S. and Brown, W. G. 1993. The response of first-litter sows to dietary protein level during lactation. Journal of Animal Science 71: 2457–2463.Google Scholar
Klobasa, F., Werhahan, E. and Butler, J. E. 1987. Composition of sow milk during lactation. Journal of Animal Science 64:1458–1466.CrossRefGoogle ScholarPubMed
Knabe, D. A., Brendemuhl, J. H., Chiba, L. I. and Dove, C. R. 1996. Supplemental lysine for sows nursing large litters. Journal of Animal Science 74:1635–1640.CrossRefGoogle ScholarPubMed
Kracht, W. 1964. Increasing the biological value of barley protein for lactating sows by addition of L-lysine hydrochloride. Archiv Tierernaehrung [Archives of Animal Nutrition] 14:39–45.CrossRefGoogle Scholar
Lewis, A. J. and Speer, V. C. 1973. Lysine requirement of the lactating sow. Journal of Animal Science 37:104–110.Google Scholar
Mahan, D. C., Becker, D. E. and Jensen, H. 1971. Effect of protein levels and opaque-2 corn on sow and litter performance during the first and second lactation periods. Journal of Animal Science 32:470–475.CrossRefGoogle ScholarPubMed
Reeds, P. J. 1988. Nitrogen metabolism and protein requirements. In Comparative nutrition (ed. Blaxter, K. and Macdonald, I.), pp. 55–72. John Libbey, London.Google Scholar
Rojanasthien, S. A. M., Lundehrim, N. and Einarsson, S. 1987. Luteinizing hormone response to different doses of synthetic gonadotrophin releasing hormone during early and late lactation in primiparous sows. Animal Reproduction Science 13:299–307.CrossRefGoogle Scholar
Stahly, T. S., Cromwell, G. L. and Monegue, H. J. 1990. Lactational responses of sows nursing large litters to dietary lysine levels. Journal of Animal Science 68: (suppl. 1) 369 (abstr.).Google Scholar
Standing Committee on Agriculture. 1987. Feeding standards for Australian livestock. Pigs. Commonwealth Scientific and Industrial Research Organisation (Australia).Google Scholar
Steinberg, A. D., Melez, K. A., Raveche, E. S., Reeves, J. P., Boegel, W. A., Smathers, P. A., Taurog, J. D., Weinlein, L. and Duvic, M. 1979. Approach to the study of the role of sex hormones in autoimmunity. Arthritis and Rheumatism 22:1170–1176.Google Scholar
Stevenson, J. S. and Britt, J. H. 1980. Luteinizing hormone, total oestrogens and progesterone secretion during lactation and after weaning in sows. Theriogenology 14: 453–462.Google Scholar
Sturman, J. A. 1993. Taurine in development. Physiological Reviews 73:119–147.Google Scholar
Tokach, M. D., Pettigrew, J. E., Crooker, B. A., Dial, G. D. and Sower, A. F. 1992. Quantitative influence of lysine and energy intake on yield of milk components in the primiparous sow. Journal of Animal Science 70:1864–1872.CrossRefGoogle ScholarPubMed
Tritton, S. M., King, R. H., Campbell, R. G., Edwards, A. C. and Hughes, P. E. 1996. The effects of dietary protein and energy levels of diets offered during lactation on the lactational and subsequent reproductive performance of first-litter sows. Animal Science 62:573–579.Google Scholar
Tritton, S. M., King, R. H., Campbell, R. G., Hughes, P. E. and Kershaw, S. 1995. In Manipulating pig production V (ed. Hennessy, D. P. and Cranwell, P. D.), p. 131. Australian Pig Science Association, Werribee.Google Scholar
Woerman, R. L. and Speer, V. C. 1976. Lysine requirement for reproduction in swine. Journal of Animal Science 42: 114–120.CrossRefGoogle ScholarPubMed
Wu, G. and Knabe, D. A. 1994. Free and protein-bound amino acids in sow's colostrum and milk. Journal of Nutrition 124: 415–425.CrossRefGoogle ScholarPubMed