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Effect of dietary forage: concentrate ratio on the behaviour, rumen fermentation and circulating concentrations of IGF-1, insulin, glucagon and metabolites of beef steers and their potential effects on carcass composition

Published online by Cambridge University Press:  18 August 2016

C. L. Thorp ,
A. R. G.Wylie ,
R. W. J. Steen ,
C. Shaw  and
J. D. McEvoy
C. L. Thorp*
Affiliation:
Agricultural Research Institute of Northern Ireland, Hillshorough, Co. Down BT26 6DR School of Agriculture and Food Science, The Queen’s University of Belfast
A. R. G.Wylie
Affiliation:
School of Agriculture and Food Science, The Queen’s University of Belfast Department of Agriculture for Northern Ireland, Newforge Lane, Belfast BT9 5PX
R. W. J. Steen
Affiliation:
Agricultural Research Institute of Northern Ireland, Hillshorough, Co. Down BT26 6DR School of Agriculture and Food Science, The Queen’s University of Belfast Department of Agriculture for Northern Ireland, Newforge Lane, Belfast BT9 5PX
C. Shaw
Affiliation:
Wellcome Laboratory, Department of Medicine, The Queen’s University of Belfast, Royal Victoria Hospital, Belfast BT12 6BA
J. D. McEvoy
Affiliation:
Veterinary Sciences Division, Department of Agriculture for Northern Ireland, Stoney Road, Belfast BT4 3SD
*
† Present address: Dept Agriculture and Food, Seed Testing Station, Abbotstown Laboratory Complex, Snugborough Road, Dublin 15, Ireland.
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Abstract

In an investigation of factors responsible for the lower efficiency of carcass lean gain seen previously in steers offered grass silage diets 18 Simmental × British Friesian steers (361 (s.e. 5-35) kg) were offered one of three diets: a perennial ryegrass silage ad libitum and alone (S) or supplemented with rolled barley at 300 g/kg of total dry matter (SC) or supplemented as described but restricted (SCr) in quantity so as to provide the same dry matter (DM) and digestible energy (DE) intakes as for S. Eating (Eb), ruminating (Rb), standing (Sb) or lying (Lb) behaviour was quantified during four 24-h periods of manual observation. Eb was noted in more detail in a second experiment using computerized Calan-Broadbent gates and load cells to monitor times and rates of eating. Blood was taken via temporary indwelling jugular catheters at 30 to 60 min intervals on each of 4 days 1 month apart. Rumen fluid was sampled hourly for three 24-h periods from three rumen-cannulated steers given the same three diets in a separate 3 x 3 change-over design experiment.

Steers offered the restricted diet SCr ate most of their food in one extended meal within 6 h of feeding while two peak eating periods (morning and evening) were observed in steers offered the other two diets. Steers offered SCr spent more time in Sb (P < 0.05), and less time in Eb (P < 0·001) and Rb (P < 0·05) activities than did animals offered the two diets ad libitum (SC and S). Mean 24 h insulin-like growth factor-1 (IGF-1) concentrations and postprandial insulin concentrations were significantly higher with diet SCr than with diet S (P < 0·001) despite equal daily DM and DE intakes from each. Insulin appearance in the jugular vein reflected the pattern of food intake on all treatments. Rumen fermentation characteristics were largely unaffected by diet. Mean 24 h rumen volatile fatty acid, pH and ammonia concentrations did not differ between diets but post-prandial rumen pH tended to be lower in animals offered the SC and SCr diets.

Differences in patterns of food intake between animals offered food ad libitum and at a restricted level are likely to determine patterns of nutrient absorption and the secretion of nutritionally regulated splanchnic hormones. The higher proportions of Sb and Rb activities in steers offered the restricted diet represent an energy cost to these animals while the higher plasma IGF-1 and insulin concentrations also seen in these animals may collectively influence the partitioning of nutrients to the peripheral tissues and contribute to the increased efficiency of carcass lean deposition previously shown in animals offered such diets.

Keywords

carcass compositionfeeding behaviourpancreatic hormonesrumen fermentationsteer
Type
Research Article
Information
Animal Science , Volume 68 , Issue 3 , April 1999 , pp. 533 - 546
Copyright
Copyright © British Society of Animal Science 1999

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References

Abdul-Razzaq, H. A. and Bickerstaffe, R. 1989. The influence of rumen volatile fatty acids on protein metabolism in growing lambs. British Journal of Nutrition 62: 297–310.Google Scholar
Abdul-Razzaq, H.A, Bickerstaffe, R. and Savage, G. P. 1988. The influence of rumen volatile fatty acids on blood metabolites and body composition of growing lambs. Australian Journal of Agricultural Research 39: 505–515.Google Scholar
Agricultural and Food Research Council. 1993. Energy and protein requirements of ruminants. An advisory manual prepared by the AFRC Technical Committee on Responses to Nutrients (TCORN). CAB International, Wallingford, UK.Google Scholar
Agricultural Research Council. 1980. The nutrient requirements of ruminant livestock. Technical review by an ARC working party. CAB, Slough, UK.Google Scholar
Albright, J. L. 1993. Observations on the eating behaviour of individually fed beef steers offered grass silage ad libitum . Irish Journal of Agricultural Research 76: 485–498.Google Scholar
Ardili, J. 1979. Radioimmunoassay of gastrointestinal hormones. Clinical Endocrinological Metabolism 8: 265–271.CrossRefGoogle Scholar
Beever, D. E. 1993. Characterisation of forages: appraisal of current practice and future opportunities. In Recent advances in animal nutrition (ed. Garnsworthy, P. C. and Cole, D.J. A.), pp. 3–17. Nottingham University Press, UK.Google Scholar
Bergman, E. N. 1990. Energy contribution of volatile fatty acids from the gastrointestinal tract in various species. Physiological Reviews 70: 567–590.Google Scholar
Bickerstaffe, R. 1993. Regulation of nutrient partitioning in growth and lactation. Australian Journal of Agricultural Research 44: 523–539.Google Scholar
Blaxter, K. L. 1967. The energy metabolism of ruminants, second edition, p. 332. Hutchinson Scientific and Technical, London.Google Scholar
Breier, B. H., Gluckman, P. D. and Bass, J. J. 1988. Influence of nutritional status and oestradiol 17-ß on plasma growth hormone, insulin-like growth factors-I and II and the response to exogenous growth hormone in young steers. Journal of Endocrinology 118: 243–250.Google Scholar
Broekman, R. P., Bergman, E. N., Joo, P. K. and Manns, J. G. 1975. Effects of glucagon and insulin on net hepatic metabolism of glucose precursors in sheep. American Journal of Physiology 229: 1344–1350.Google Scholar
Chase, L. E., Wangsness, P. J. and Baungardt, B. R. 1976. Feeding behaviour of steers fed a complete mixed ration. Journal of Dairy Science 59: 1923–1928.CrossRefGoogle ScholarPubMed
Denver, R. J. and Nicholls, C. S. 1994. Pancreatic hormones differentially regulate insulin-like growth factor-I and insulin-like growth factor binding protein production by primary rat hepatocytes. Journal of Endocrinology 142: 299–310.CrossRefGoogle ScholarPubMed
Dijkstra, J., Boer, H., Bruchem, J. van, Bruining, M. and Tamminga, S. 1993. Absorption of volatile fatty acids from the rumen of lactating dairy cows as influenced by volatile fatty acid concentration, pH and rumen liquid volume. British Journal of Nutrition 69: 385–396.CrossRefGoogle ScholarPubMed
Donkin, S. S. and Armentano, L. E. 1995. Insulin and glucagon regulation of gluconeogenesis in pre-ruminating and ruminating bovines. Journal of Animal Science 73: 546–551.Google Scholar
Dulphy, J. P., Remond, B. and Theriez, M. 1979. Ingestive behaviour and related activities in ruminants. In Digestive physiology and metabolism in ruminants (ed. Ruckebusch, Y. and Thivend, P.), pp. 103–122. MTP Press, Lancaster, UK.Google Scholar
Elasser, T. H., Rumsey, T. S. and Hammond, A. C. 1989. Influence of diet on basal and growth hormone-stimulated plasma concentrations of insulin-like growth factor-I in beef cattle. Journal of Animal Science 67: 128–141.Google Scholar
Ellenberger, M. A., Johnson, D. E., Carstens, G. E., Hossner, K. L., Holland, M. D., Nett, T. M. and Nockels, C. F. 1989. Endocrine and metabolic changes during altered growth rates in beef cattle. Journal of Animal Science 67: 1446–1454.Google Scholar
Forbes, J. M., Jackson, D. A., Johnson, C. L., Stockhill, P. and Hoyle, B. S. 1986. A method for the automatic monitoring of food intake and feeding behaviour of individual cattle fed in groups. Research and Development in Agriculture 3: 175–180.Google Scholar
Harb, M. V. and Campling, R. C. 1983. Effect of the amount of barley and time of access to grass silage on the voluntary intake, eating behaviour and production of dairy cows. Grass and Tor age Science 38: 115–119.CrossRefGoogle Scholar
Huntington, G. B. 1990. Review: energy metabolism in the digestive tract and liver of cattle: influence of physiological state and nutrition. Reproduction, Nutrition, Development 30: 35–47.Google Scholar
Kerr, D. E., Laarveld, B., Fehr, M. I. and Manns, J. G. 1991. Profiles of serum IGF-I concentrations in calves from birth to eighteen months of age and cows throughout the lactation cycle. Canadian Journal of Animal Science 71: 697–705.Google Scholar
Ku-Vera, J.C, McLeod, N. A. and Ørskov, E. R. 1989. Energy exchanges in cattle nourished by intragastric infusion of nutrients. In Energy metabolism of farm animals (ed. Honing, Y. van de and Close, W. H.), proceedings of the 11th symposium of the European Association for Animal Production, pp. 271–274. Pudoc, Wageningen, The Netherlands.Google Scholar
Little, W., Mansion, R., Wilkinson, J. I. D. and Barrant, M.E. 1991. Some factors related to the voluntary intake of silage by individual dairy cows housed as a group during two winter feeding periods. Animal Production 33: 19–25.Google Scholar
Lobley, G. E. 1990. Energy metabolism reactions in ruminant muscle: responses to age, nutrition and hormonal status. Reproduction, Nutrition, Development 30: 13–34.Google Scholar
McGarry, B. C, de la Torre, F., Oltjen, J. W. and Sainz, R. D. 1993. Early forage feeding reduces plasma IGF-1 in slaughter steers. Journal of Animal Science 71: (suppl. 1) 134 (abstr.).Google Scholar
McKinnon, J. J., Cohen, R. D. H., Jones, S. D. M., Laarveld, B. and Christenson, D. A. 1993. The effects of dietary energy and crude protein concentration on growth and serum insulin-like growth factor-I levels of cattle that differ in mature body size. Canadian Journal of Animal Science 73: 303–313.CrossRefGoogle Scholar
Martinsson, K. 1991. Effects of length of access time to feed and conservation method on feed intake and production in lactating dairy cows. Swedish Journal of Agricultural Research 21: 35–42.Google Scholar
Mears, G. J. 1993. Influence of feeding and diet on diurnal patterns of growth hormone and insulin in calves. Canadian Journal of Animal Science 73: 987–991.Google Scholar
Mineo, H., Oyamada, T., Yasuda, T., Akiyama, M., Kato, S. and Ushijima, J. 1990. Effect of feeding frequency on plasma glucose, insulin and glucagon concentrations in sheep. Japanese Journal of Zootechnical Science 61: 411–416.Google Scholar
Moloney, A. P., McArthur, A., Spicer, L. J., Cambell, R. M., Mowles, T. F. and Enright, W. J. 1992. Growth and blood variables in young steers fed grass silage and concentrates which differ in protein concentration and degradation. Proceedings of Irish Grassland and Animal Production Association, 1992.Google Scholar
National Algorithmic Group. 1989. Genstat 5 reference manual Clarendon Press, Oxford.Google Scholar
Ørskov, E. R. 1975. Manipulation of rumen fermentation for maximum food utilisation. World Review of Nutrition and Dietetics 22: 152–182.Google Scholar
Ørskov, E. R., McLeod, N. A., Nakashima, Y. 1991. Effect of different volatile fatty acid mixtures on energy metabolism in cattle. Journal of Animal Science 68: 3389–3397.CrossRefGoogle Scholar
Ortigues, L, Petit, M., Agabriel, J. and Vermorel, M. 1993. Maintenance requirements in metabolisable energy of adult, non-pregnant, non-lactating Charoláis cows. Journal of Animal Science 71: 1947–1956.Google Scholar
Ortigues, I. and Visseiche, A.-L. 1995. Whole-body fuel selection in ruminants: nutrient supply and utilisation by major tissues. Proceedings of the Nutrition Society 54: 235–251.Google Scholar
Owen, G. L., Martz, F. A., Campbell, J. R., Matches, A. G. and Hilderbrand, E. S. 1976. Relation of eating and associated behavioural patterns of cattle in confinement to forage species and ambient temperature. Journal of Animal Science 42: 1534–1540.CrossRefGoogle Scholar
Porter, M. G. 1992. Comparison of sample preparation methods for the determination of the gross energy concentration of fresh silage. Animal Feed Science and Technology 37: 201–208.Google Scholar
Prior, R. L. and Smith, S. B. 1983. Role of insulin in regulating amino acid metabolism in normal and alloxan-diabetic cattle. Journal of Nutrition 113: 1016–1031.CrossRefGoogle ScholarPubMed
Putnam, P. A. and Davis, R. E. 1963. Ration effects on drylot steer feeding patterns. Journal of Animal Science 22: 437–443.Google Scholar
Rémond, D., Chaise, J. P., Delval, E. and Poncét, C. 1993. Net flux of metabolites across the ruminál wall of sheep fed twice a day with orchard grass hay. Journal of Animal Science 71: 2529–2538.Google Scholar
Reynolds, C. K., Lapierre, H., Tyrrell, H. F., Elsasser, T. H., Staples, R. C, Gaudrea, P. and Brazeau, P. 1992. Effects of growth hormone-releasing factor and feed intake on energy metabolism in growing beef steers: net nutrient metabolism by portal-drained viscera and liver. Journal of Animal Science 70: 752–763.Google Scholar
Reynolds, C. K. and Tyrrell, H.F. 1991. Effects of diet composition and intake on visceral insulin and glucagon metabolism in cattle. In Energy metabolism of farm animals (ed. Wenk, C. and Boessinger, M.), proceedings of the 12th symposium of the European Association for Animal Production, Zurich, Switzerland, pp. 12–15.Google Scholar
Reynolds, C. K., Tyrrell, H. F. and Reynolds, P. J. 1991a. Effects of diet forage-to-concentrate ratio and intake on energy metabolism in growing beef heifers: whole body energy and nitrogen balance and visceral heat production. Journal of Nutrition 121: 994–1003.Google Scholar
Reynolds, C. K., Tyrrell, H. F. and Reynolds, P. J. 1991b. Effects of diet forage-to-concentrate ratio and intake on energy metabolism in growing beef heifers: net nutrient metabolism by visceral tissues. Journal of Nutrition 121: 1004–1015.Google Scholar
Seal, C. J., Parker, D. S. and Avery, P. J. 1992. The effect of forage-concentrate diets on rumen fermentation and metabolism of nutrients by the mesenteric and portal-drained viscera in growing steers. British Journal of Nutrition 67: 355–370.Google Scholar
Seal, C. J. and Reynolds, C.K. 1993. Nutritional implications of gastrointestinal and liver metabolism in ruminants. Nutrition Research Reviews 6: 185–208.Google Scholar
Snell, K. 1991. Regulation of hepatic glucose metabolism by insulin and counter-regulatory hormones. Proceedings of the Nutrition Society 50: 567–575.Google Scholar
Steen, R. W.J. 1984. A comparison of two-cut and three-cut systems of silage making for beef cattle using two cultivars of perennial ryegrass. Animal Production 38: 171–179.Google Scholar
Steen, R. W.J. 1989. A comparison of soya-bean, sunflower and fish meals as protein supplements for yearling cattle offered grass silage-based diets. Animal Production 48: 81–89.Google Scholar
Steen, R. W.J. 1992a. The effects of plane of nutrition and forage: concentrate ratio on the performance and carcass composition of steers. Animal Production 54: 450 (abstr.).Google Scholar
Steen, R. W.J. 1992b. The effects of plane of nutrition and slaughter weight on performance and carcass composition of beef cattle. Animal Production 54: 466 (abstr.).Google Scholar
Steen, R. W.J. 1994. Effects of forage: concentrate ratio in the diet and restricted dry-matter intake on the performance and carcass composition of steers. Animal Production 58: 443 (abstr.).Google Scholar
Stout, R. W., Henry, R. W. and Buchanan, K. D. 1976. Triglycéride metabolism in acute starvation: the role of secretin and glucagon. European Journal of Clinical Investigation 6: 179–185.Google Scholar
Suzuki, S., Fujita, H. and Shinde, Y. 1969. Change in the rate of eating during a meal and the effect of interval between meals on the rate at which cows eat roughages. Animal Production 11: 29–41.Google Scholar
Thomas, C, Gibbs, B.G., Beever, D. E. and Thurnham, B. R. 1988. The effect of date of cut and barley substitution on gain and on the efficiency of utilisation of grass silage by growing cattle. 1. Gains in live weight and its components. British Journal of Nutrition 60: 297–306.Google Scholar
Trenkle, A. H. 1980. Amino acid metabolism and hormonal control of growth. In Digestive physiology and metabolism in ruminants (ed. Ruckebusch, Y. and Thivend, P.), pp. 505–522. MTP Press Ltd, Lancaster, UK.CrossRefGoogle Scholar
Unsworth, E. F., McCracken, K. J., Moore, C. A., Steen, R. W. J. and Kilpatrick, D. J. 1991. Energy retention in steers as measured by respiration calorimetry and carcass composition. In Energy metabolism of farm animals (ed. Wenk, C. and Boessinger, M.), proceedings of the 12th symposium of the European Association for Animal Production, Zurich, Switzerland, pp. 190–193.Google Scholar
Webster, A. J. F. 1980. Energy costs of digestion and metabolism in the gut. In Digestive physiology and metabolism in ruminants (éd. Y. Ruckebusch and Thivend, P.), pp. 469–484. MTP Press, Lancaster, UK.Google Scholar
Weekes, T. E. C. 1986. Insulin and growth. In Control and manipulation of animal growth (ed. Buttery, P. J. Lindsay, D. B. and Haynes, N. B.), pp. 187–206. Butterworths, London.Google Scholar
Wolff, J. E., Dobbie, P. M. and Pétrie, D. R. 1989. Anabolic effects of insulin in growing lambs. Quarterly Journal of Experimental Physiology 74: 451–463.Google Scholar
Wylie, A. R. G. 1995. Metabolic and hormonal responses to starvation and incremental refeeding in sheep. Proceedings of the Nutrition Society 54: 77 (abstr.).Google Scholar
Wylie, A. R. G., Chestnutt, D. M. B. and Kilpatrick, D. J. 1997. Growth and carcass characteristics of heavy slaughter weight lambs: effects of sire breed and sex of lamb and relationships to serum metabolites and IGF-1. Animal Science 64: 309–318.Google Scholar
Wylie, A. R. G., McEvoy, J. D., McGrattan, P. and Devlin, D. J. 1996. Transit time ultrasound measurement of portal blood flow in cattle. Animal Science 62: 687 (abstr.).Google Scholar