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A consideration of starch and protein digestive dynamics in chicken-meat production

Published online by Cambridge University Press:  03 June 2015

S.Y. LIU  and
P.H. SELLE
S.Y. LIU*
Affiliation:
Poultry Research Foundation, The University of Sydney, 425 Werombi Road, Camden, NSW2570, Australia
P.H. SELLE
Affiliation:
Poultry Research Foundation, The University of Sydney, 425 Werombi Road, Camden, NSW2570, Australia
*
Corresponding author: [email protected]
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Abstract

The hypothesis that glucose and amino acids should be made available in appropriately balanced quantities at the sites of protein synthesis for efficient protein deposition and growth performance is not new in animal nutrition. The objective of this review is to consider starch and protein digestive dynamics in light of recent developments and research outcomes in relation to chicken-meat production. This will concentrate on the concept that catabolism of amino acids in enterocytes provides energy for the gut and slowly digestible starch benefits performance. These are supported by relatively recent developments and studies with reducing agents. Practices such as whole grain feeding, hydrothermally processing diets, addition of exogenous enzymes and synthetic amino acids to broiler diets modify starch and protein digestive dynamics. It may be possible to enhance feed conversion efficiency of broiler chickens by manipulating starch and protein digestive dynamics and likelihood of using these methods is considered in this review.

Keywords

amino acidsbroilerdigestiondynamicsstarch
Type
Reviews
Information
World's Poultry Science Journal , Volume 71 , Issue 2 , June 2015 , pp. 297 - 310
Copyright
Copyright © World's Poultry Science Association 2015 

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References

AL-RABADI, G.J.S., GILBERT, R.G. and GIDLEY, M.J. (2009) Effect of particle size on kinetics of starch digestion in milled barley and sorghum grains by porcine alpha-amylase. Journal of Cereal Science 50: 198-204.CrossRefGoogle Scholar
BATTERHAM, E.S. and MURISON, R.D. (1981) Utilization of free lysine by growing-pigs. British Journal of Nutrition 46: 87-92.CrossRefGoogle ScholarPubMed
BATTERHAM, E.S. and BAYLEY, H.S. (1989) Effect of frequency of feeding of diets containing free or protein-bound lysine on the oxidation of c-14 lysine or c-14 phenylalanine by growing-pigs. British Journal of Nutrition 62: 647-655.CrossRefGoogle ScholarPubMed
BELO, P.S., ROMSOS, D.R. and LEVEILLE, G.A. (1976) Blood metabolites and glucose-metabolism in fed and fasted chicken. Journal of Nutrition 106: 1135-1143.CrossRefGoogle ScholarPubMed
CANT, J.P., MCBRIDE, B.W. and CROOM, W.J. (1996) The regulation of intestinal metabolism and its impact on whole animal energetics. Journal of Animal Science 74: 2541-2553.CrossRefGoogle ScholarPubMed
CHOCT, M., HUGHES, R.J. and BEDFORD, M.R. (1999) Effects of a xylanase on individual bird variation, starch digestion throughout the intestine, and ileal and caecal volatile fatty acid production in chickens fed wheat. British Poultry Science 40: 419-422.CrossRefGoogle ScholarPubMed
DEL ALAMO, A.G., DE AYALA, P.P., DEN HARTOG, L.A., VERSTEGEN, M.W.A. and VILLAMIDE, M.J. (2009) Wheat starch digestion rate in broiler chickens is affected by cultivar but not by wheat crop nitrogen fertilisation. British Poultry Science 50: 341-349.CrossRefGoogle Scholar
DENBOW, D.M. (2000) Gastrointestinal Anatomy and Physiology, in: WHITTOW, G. (Ed) Sturkie's Avian Physiology, pp. 313 (Academic Press).Google Scholar
ENTING, H., POS, J., WEURDING, R.E. and VELDMAN, A. (2005) Starch digestion rate affects broiler performance. Proceedings of Australian Poultry Science Symposium 17: 17-20.Google Scholar
FLEMING, S.E., ZAMBELL, K.L. and FITCH, M.D. (1997) Glucose and glutamine provide similar proportions of energy to mucosal cells of rat small intestine. American Journal of Physiology-Gastrointestinal and Liver Physiology 273: G968-G978.CrossRefGoogle ScholarPubMed
FUJITA, H. (1974) Quantitative studies on the variations in feeding activity of chickens. 3. Effect of pelleting the feed on the eating patterns and the rate of feed passage through the digestive tract in chicks. Japanese Poultry Science 11: 210-216.CrossRefGoogle Scholar
FULLER, M.F. and REEDS, P.J. (1998) Nitrogen cycling in the gut. Annual Review of Nutrition 18: 385-411.CrossRefGoogle ScholarPubMed
GEIGER, E. (1950) The role of the time factor in protein synthesis. Science 111: 594-599.CrossRefGoogle ScholarPubMed
GIUBERTI, G., GALLO, A., CERIOLI, C. and MASOERO, F. (2012) In vitro starch digestion and predicted glycemic index of cereal grains commonly utilized in pig nutrition. Animal Feed Science and Technology 174: 163-173.CrossRefGoogle Scholar
GOLDBERG, A. and GUGGENHEIM, K. (1962) Digestive release of amino acids and their concentrations in portal plasma of rats after protein feeding. Biochemical Journal 83: 129-135.CrossRefGoogle ScholarPubMed
JENSEN, L.S., MCGINNIS, J., REDDY, C.V. and MERRILL, L.H. (1962) Observations on eating patterns and rate of food passage of birds fed pelleted and unpelleted diets. Poultry Science 41: 1414.CrossRefGoogle Scholar
LI, T.J., DAI, Q.Z., YIN, Y.L., ZHANG, J., HUANG, R.L., RUAN, Z., DENG, Z. and XIE, M. (2008) Dietary starch sources affect net portal appearance of amino acids and glucose in growing pigs. Animal 2: 723-729.CrossRefGoogle ScholarPubMed
LIU, S.Y., SELLE, P.H., COURT, S.G. and COWIESON, A.J. (2013a) Protease supplementation of sorghum-based broiler diets enhances amino acid digestibility coefficients in four small intestinal sites and accelerates their rates of digestion. Animal Feed Science and Technology 183: 175-183.CrossRefGoogle Scholar
LIU, S.Y., SELLE, P.H. and COWIESON, A.J. (2013b) Influence of conditioning temperatures on amino acid digestibility coefficients at four small intestinal sites and their rates of digestion in sorghum-based broiler diets. Animal Feed Science and Technology 185: 85-93.CrossRefGoogle Scholar
LIU, S.Y., SELLE, P.H. and COWIESON, A.J. (2013c) The kinetics of starch and nitrogen digestion regulate growth performance and nutrient utilisation in coarsely-ground, sorghum-based broiler diets Animal Production Science 53: 1033-1040.CrossRefGoogle Scholar
LIU, S.Y., SELLE, P.H. and COWIESON, A.J. (2013d) Influence of white- and red-sorghum varieties and hydrothermal component of steam-pelleting on digestibility coefficients of amino acids and kinetics of amino acids, nitrogen and starch digestion in diets for broiler chickens. Animal Feed Science and Technology 186: 53-63.CrossRefGoogle Scholar
LIU, S.Y., SELLE, P.H. and COWIESON, A.J. (2013e) Dynamics of starch and nitrogen digestion influence feed conversion efficiency in broiler chickens. Recent Advances in Animal Nutrition, Armidale, Australia.Google Scholar
LIU, S.Y., CADOGAN, D.J., PÉRON, A., TRUONG, H.H. and SELLE, P.H. (2014a) Effects of phytase supplementation on growth performance, nutrient utilisation and digestive dynamics of starch and protein in broiler chickens offered maize-, sorghum- and wheat-based diets. Animal Feed Science and Technology 197: 164-175.CrossRefGoogle Scholar
LIU, S.Y., SELLE, P.H. and COWIESON, A.J. (2014b) Steam-pelleting temperatures and grain variety of finely-ground, sorghum-based broiler diets influence on starch and nitrogen digestion kinetics in the small intestine of broiler chickens. International Journal of Poultry Science 13: 308-315.CrossRefGoogle Scholar
LIU, S.Y., SELLE, P.H., KHODDAMI, A., ROBERTS, T.H. and COWIESON, A.J. (2014c) Graded inclusions of sodium metabisulphite in sorghum-based diets: II. Modification of starch pasting properties in vitro and beneficial impacts on starch digestion dynamics in broiler chickens. Animal Feed Science and Technology 190: 68-78.CrossRefGoogle Scholar
LIU, S.Y., TRUONG, H.H. and SELLE, P.H. (2014d) Whole grain feeding for chicken-meat production: Possible mechanisms driving enhanced energy utilisation and feed conversion Animal Production Science: http://dx.doi.org/10.1071/AN13417.CrossRefGoogle Scholar
MAHASUKHONTHACHAT, K., SOPADE, P.A. and GIDLEY, M.J. (2010) Kinetics of starch digestion in sorghum as affected by particle size. Journal of Food Engineering 96: 18-28.CrossRefGoogle Scholar
MORAN, E.T. (1982) Starch digestion in fowl. Poultry Science 61: 1257-1267.CrossRefGoogle ScholarPubMed
MOUGHAN, P.J. (2014) New technologies shaping animal production beyond 2020. Fifth International Broiler Nutritionists’ Conference; Queenstown NZ. Massey University, Palmerston North: 2014.Google Scholar
RAVINDRAN, V. and BRYDEN, W.L. (1999) Amino acid availability in poultry - in vitro and in vivo measurements. Australian Journal of Agricultural Research 50: 889-908.CrossRefGoogle Scholar
RERAT, A.A. (1993) Nutritional supply of proteins and absorption of their hydrolysis products - consequences on metabolism. Proceedings of the Nutrition Society 52: 335-344.CrossRefGoogle ScholarPubMed
RIESENFELD, G., SKLAN, D., BAR, A., EISNER, U. and HURWITZ, S. (1980) Glucose-absorption and starch digestion in the intestine of the chicken. Journal of Nutrition 110: 117-121.CrossRefGoogle ScholarPubMed
SAVORY, C.J. (1980) Diurnal feeding patterns in domestic-fowls - review. Applied Animal Ethology 6: 71-82.CrossRefGoogle Scholar
SELLE, P.H., GILL, R.J. and SCOTT, T.A. (2007) Effects of pre-pelleted wheat and phytase supplementation on broiler growth performance and nutrient utilisation. Proceedings of the 19th Australian Poultry Science Symposium, Sydney, New South Wales, Australia, 12-14 February 2007: 182-185.Google Scholar
SELLE, P.H. and RAVINDRAN, V. (2007) Microbial phytase in poultry nutrition. Animal Feed Science and Technology 135: 1-41.CrossRefGoogle Scholar
SELLE, P.H., COWIESON, A.J., COWIESON, N.P. and RAVINDRAN, V. (2012) Protein-phytate interactions in pig and poultry nutrition: a reappraisal. Nutrition Research Reviews 25: 1-17.CrossRefGoogle ScholarPubMed
SELLE, P.H., LIU, S.Y., CAI, J., CALDWELL, R.A. and COWIESONA, A.J. (2013a) Preliminary assessment of including a reducing agent (sodium metabisulphite) in ‘all-sorghum’ diets for broiler chickens. Animal Feed Science and Technology 186: 81-90.CrossRefGoogle Scholar
SELLE, P.H., LIU, S.Y., CAI, J. and COWIESON, A.J. (2013b) Steam-pelleting temperatures, grain variety, feed form and protease supplementation of mediumly-ground, sorghum-based broiler diets: influences on growth performance, relative gizzard weights, nutrient utilisation, starch and nitrogen digestibility. Animal Production Science 53: 378-387.CrossRefGoogle Scholar
SELLE, P.H., LIU, S.Y., CAI, J., CALDWELL, R.A. and COWIESON, A.J. (2014) Graded inclusions of sodium metabisulphite in sorghum-based diets: I. Reduction of disulphide cross-linkages in vitro and enhancement of energy utilisation and feed conversion efficiency in broiler chickens. Animal Feed Science and Technology 190: 59-67.CrossRefGoogle Scholar
SIMON, J. (1989) Chicken as a useful species for the comprehension of insulin action. Critical Reviews in Poultry Biology 2: 121-148.Google Scholar
SVIHUS, B. and HETLAND, H. (2001) Ileal starch digestibility in growing broiler chickens fed on a wheat-based diet is improved by mash feeding, dilution with cellulose or whole wheat inclusion. British Poultry Science 42: 633-637.CrossRefGoogle ScholarPubMed
SVIHUS, B., UHLEN, A.K. and HARSTAD, O.M. (2005) Effect of starch granule structure, associated components and processing on nutritive value of cereal starch: A review. Animal Feed Science and Technology 122: 303-320.CrossRefGoogle Scholar
TESSERAUD, S., METAYER, S., DUCHENE, S., BIGOT, K., GRIZARD, J. and DUPONT, J. (2007) Regulation of protein metabolism by insulin: Value of different approaches and animal models. Domestic Animal Endocrinology 33: 123-142.CrossRefGoogle ScholarPubMed
TOKUSHIMA, Y., TAKAHASHI, K., SATO, K. and AKIBA, Y. (2005) Glucose uptake in vivo in skeletal muscles of insulin-injected chicks. Comparative Biochemistry and Physiology B-Biochemistry & Molecular Biology 141: 43-48.CrossRefGoogle ScholarPubMed
VAN DER MEULEN, J., BAKKER, J.G.M., SMITS, B. and DEVISSER, H. (1997) Effect of source of starch on net portal flux of glucose, lactate, volatile fatty acids and amino acids in the pig. British Journal of Nutrition 78: 533-544.CrossRefGoogle ScholarPubMed
WATFORD, M., LUND, P. and KREBS, H.A. (1979) Isolation and metabolic characteristics of rat and chicken enterocytes. Biochemical Journal 178: 589-596.CrossRefGoogle ScholarPubMed
WEURDING, R.E., VELDMAN, A., VEEN, W.A.G., VAN DER AAR, P.J. and VERSTEGEN, M.W.A. (2001) Starch digestion rate in the small intestine of broiler chickens differs among feedstuffs. Journal of Nutrition 131: 2329-2335.CrossRefGoogle ScholarPubMed
WEURDING, R.E. (2002) Kinetics of starch digestion and performance of broiler chickens. Wageningen Universiteit (Wageningen University): Wageningen, Netherlands.Google Scholar
WEURDING, R.E., ENTING, H. and VERSTEGEN, M.W.A. (2003a) The effect of site of starch digestion on performance of broiler chickens. Animal Feed Science and Technology 110: 175-184.CrossRefGoogle Scholar
WEURDING, R.E., ENTING, H. and VERSTEGEN, M.W.A. (2003b) The relation between starch digestion rate and amino acid level for broiler chickens. Poultry Science 82: 279-284.CrossRefGoogle ScholarPubMed
WU, G.Y. (1998) Intestinal mucosal amino acid catabolism. Journal of Nutrition 128: 1249-1252.CrossRefGoogle ScholarPubMed
WU, G.Y. (2009) Amino acids: metabolism, functions, and nutrition. Amino Acids 37: 1-17.CrossRefGoogle ScholarPubMed
WU, Y.B., RAVINDRAN, V., THOMAS, D.G., BIRTLES, M.J. and HENDRIKS, W.H. (2004) Influence of method of whole wheat inclusion and xylanase supplementation on the performance, apparent metabolisable energy, digestive tract measurements and gut morphology of broilers. British Poultry Science 45: 385-394.CrossRefGoogle ScholarPubMed