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Anti-nutritive activities of cereal non-starch polysaccharides in broiler diets and strategies minimizing their effects

Published online by Cambridge University Press:  23 March 2009

G. Annison  and
M. Choct
G. Annison
Affiliation:
Department of Animal Science, University of Sydney, Camden, NSW 2570, Australia
M. Choct
Affiliation:
Department of Animal Science, University of Sydney, Camden, NSW 2570, Australia
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Abstract

The non-starch polysaccharides (NSPs) of cereals exhibit anti-nutritive activity when present in broiler diets. The high levels of arabinoxylans (pentosans) in rye and β-glucans in barley are responsible for the poor nutritive value of these cereals. Australian wheats vary considerably in their nutritive value with some having very low apparent metabolizable energy (AME <13 MJ/kg) values. Recent studies have shown that the low AME wheat problem is probably due to the variation in the levels of the water-soluble wheat NSPs which are predominantly pentosans. When pentosans isolated from rye or wheat are added to broiler diets, dose-dependent depressions in nutrient digestion and growth occur. Several treatments have been shown to be effective in improving the nutritive value of cereals. Soaking the cereals in water or adding NSP-degrading enzymes decreases the anti-nutritive activity of the NSP. Addition of antibiotics to diets also has been shown to increase the nutritive value of diets with high levels of NSP suggesting that the action of these materials is, at least in part, mediated by the gut microflora.

Keywords

Anti-nutritivebroilercerealdietenzymesnon-starch polysaccharidespentosans
Type
Reviews
Information
World's Poultry Science Journal , Volume 47 , Issue 3 , November 1991 , pp. 232 - 242
Copyright
Copyright © Cambridge University Press 1991

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References

Adams, O.L. and Naber, E.C. (1969) Effect of physical and chemical treatment of grains on growth of and feed utilization by the chick. 2. Effect of water and acid treatments of grains and grain components on chick growth, nitrogen retention and energy utilization. Poultry Science 48: 922–928Google Scholar
Anderson, J.O. and Warnick, R.E. (1964) Value of enzyme supplements in rations containing certain legume seed meals of gums. Poultry Science 43: 1091–1097Google Scholar
Annison, G. (1990a) Polysaccharide composition of Australian wheats and the digestibility of their starches in broiler chicken diets. Australian Journal of Experimental Agriculture 30: 183–186CrossRefGoogle Scholar
Annison, G. (1990b) Complex polysaccharides in broiler diets. Proceedings of the Australian Poultry Science Symposium 17–24Google Scholar
Annison, G. (1991) Factors influencing the nutritive value of wheat. Proceedings of the Australian Poultry Science Symposium 46–49Google Scholar
Antoniou, T. and Marquardt, R.R. (1981) Influence of rye pentosans on the growth of chicks. Poultry Science 60: 1898–1904Google Scholar
Antoniou, T., Marquardt, R.R. and Cansfield, E. (1981) Isolation, partial characterization, and antinutritional activity of a factor (pentosans) in rye grain. Journal of Agriculture and Food Chemistry 29: 1240–1247Google Scholar
Antoniou, T.C. and Marquardt, R.R. (1982) The utilization of rye by growing chicks as influenced by autoclave, treatment, water extraction and water soaking. Poultry Science 61: 91–102Google Scholar
Baker, D.H. (1977) Xylose and xylan utilization by the chick. Poultry Science 56: 2105–2107Google Scholar
Campbell, G.L., Classen, H.L. and Goldsmith, K.A. (1983a) Effect of fat retention on the rachitogenic effects of rye fed to broiler chicks. Poultry Science 62: 2218–2223Google Scholar
Campbell, G.L., Classen, H.L., Reichert, R.D. and Campbell, L.D. (1983b) Improvement of the nutritive value of rye for broiler chickens by gamma irradiation-induced viscosity reduction. British Poultry Science 24: 205–212Google Scholar
Campbell, G.L., Classen, H.L. and Ballance, G.M. (1986a) Gamma irradiation treatment of cereal grains for chick diets. Journal of Nutrition 116: 560–569Google Scholar
Campbell, G.L., Sosulski, F.W., Classen, H.L. and Ballance, G.M. (1986b) The nutritive value of irradiated and β-glucanase-treated wild oat groats (Avena fatera L.) for broiler chickens. Animal Feed Science and Technology 16: 243–252Google Scholar
Chesson, A. (1987) Supplementary enzymes to improve the utilization of pig and poultry diets. In: Recent Advances in Animal Nutrition (Eds Haresign, W. and Cole, D.J.A.), Butterworths, London, pp. 71–89CrossRefGoogle Scholar
Choct, M. and Annison, G. (1990) Anti-nutritive activity of wheat pentosans in poultry diets. British Poultry Science 31: 809–819Google Scholar
Choct, M. and Annison, G. (1991) Inhibition of nutrient digestion by wheat pentosans. British Journal of Nutrition (in press)Google Scholar
Classen, H.L. and Campbell, G.I. (1990) Improvement of feed utilisation through the use of enzyme products. Proceedings of the Australian Poultry Science Symposium 1–8Google Scholar
Classen, H.L., Campbell, G.L. and Grootwassink, J.W.D. (1988) Improved feeding value of Saskatchewan grown barley for broiler chickens with dietary enzyme supplementation. Canadian Journal of Animal Science 68: 1253–1259Google Scholar
De Silva, S., Hesselman, K. and Aman, P. (1983) Effects of water and β-glucanese treatment on non-starch polysaccharides in endosperm of low and high viscous barley. Swedish Journal of Agriculture 13: 211–219Google Scholar
Edney, M.J., Campbell, G.L. and Classen, H.L. (1989) The effect of β-glucanese supplementation on nutrient digestibility and growth in broilers given diets containing barley, oat groats or wheat. Animal Feed Science and Technology 25: 193–200CrossRefGoogle Scholar
Englyst, H. (1990) Classification and measurement of plant polysaccharides. Animal Feed Science Technology 23: 27–42CrossRefGoogle Scholar
Feighner, S.D. and Dashkevicz, M.P. (1988) Effect of dietary carbohydrates on bacterial cholyltaurine hydrolase in poultry intestinal homogenates. Applied and Environmental Microbiology 54: 337–342Google Scholar
Fengler, A.I. and Marquardt, R.R. (1988a) Water-soluble pentosans from rye: I. Isolation, partial purification and characterisation. Cereal Chemistry 65: 291–297Google Scholar
Fengler, A.I. and Marquardt, R.R. (1988b) Water-soluble pentosans from rye: II. Effects of rate of dialysis on the retention of nutrients by the chick. Cereal Chemistry 65: 298–302Google Scholar
Fernandez, R., Lucas, E.A. and McGinnis, J. (1973) Fractionation of a chick growth depressing factor from rye. Poultry Science 52: 2252–2259CrossRefGoogle ScholarPubMed
Fincher, G.B. and Stone, B.A. (1974) A water-soluble arabinogalactan peptide from wheat endosperm. Australian Journal of Biological Science 27: 117–132CrossRefGoogle Scholar
Fincher, G.B. and Stone, B.A. (1986) Cell walls and their components in cereal grain technology. In: Advances in Cereal Science and Technology, Vol. VIII (Ed. Pomeranz, Y.), AACC, Minnesota, p. 207Google Scholar
Fry, R.E., Allred, J.B., Jensen, L.S. and McGinnis, J. (1958) Influence of enzyme supplementation and water treatment on the nutritional value of different grains for poults. Poultry Science 37: 372–375CrossRefGoogle Scholar
Gohl, B., Alden, S., Elwinger, K. and Thomke, S. (1978) Influence of β-glucanese on feeding value of barley for poultry and moisture content of excreta. British Poultry Science 19: 41–47CrossRefGoogle Scholar
Grammer, J.C., McGinnis, J. and Pubols, M.H. (1982) The rachitogenic effects of fractions of rye and certain polysaccharides. Poultry Science 62: 103–109CrossRefGoogle Scholar
Halpin, J.G., Holmes, C.E. and Hart, E.B. (1936) Rye as a feed for poultry. Poultry Science 15: 3–8CrossRefGoogle Scholar
Henry, R.J. (1985) A comparison of the non-starch carbohydrates in cereal grains. Journal of Food Science and Agriculture 36: 1243–1253CrossRefGoogle Scholar
Hesselman, K. (1989) The use of enzymes in poultry diets. Proceedings of 7th European Symposium on Poultry ScienceSpainWPSA, PP. 31–45Google Scholar
Hesselman, K. and Aman, P. (1986) The effect of β-glucanese on the utilization of starch and nitrogen by broiler chickens fed on barley of low or high viscosity. Animal Feed Science and Technology 15: 83–93Google Scholar
Ikeda, K. and Kusano, K. (1983) In vitro inhibition of digestive enzymes by indigestible polysaccharides. Cereal Chemistry 60: 260–263Google Scholar
Jenkins, D.J.A., Wolever, R.M.S., Leeds, A.R. et al. (1978) Dietary fibers, fiber analogues and glucose tolerance: importance of viscosity. British Medical Journal 1: 1392–1394Google Scholar
Janssen, W.M.M.A., Terpstra, K., Beeking, F.F.E. and Bisalsky, A.J.N. (1979) Feeding Values for Poultry, 2nd Edition, Spelderholt Institute for Poultry Research, Beekbergen, The NetherlandsGoogle Scholar
Johnson, R.J. (1987) Metabolisable energy assay systems for broiler chickens. Proceedings of the Seventh Australian Poultry and Feed Convention 127–133Google Scholar
Kelsay, J.L., Behall, K.M. and Prather, E.S. (1978) Effect of fiber from fruits and vegetables on metabolic responses of human subjects. 1. Bowel transit time, number of defecations, fecal weight, urinary excretions of energy, nitrogen, fat. American Journal of Clinical Nutrition 31: 1149–1153Google Scholar
Lee, B.D. and Campbell, L.D. (1983) Effects of the addition of varied salt levels on the performance of growing chickens fed rye diets. Poultry Science 62: 863–868Google Scholar
Lepkovsky, S. and Furuta, F. (1960) The effect of water treatment on feeds upon the nutritional values of feeds. Poultry Science 26: 813–830Google Scholar
Longstaff, M.A., Knox, A. and McNab, J.B. (1988) Digestibility of pentose sugars and uronic acids and their effect on chick weight gain and caecal size. British Poultry Science 29: 379–393Google Scholar
Low, A.G. (1989) Secretory response of the pig gut to non-starch polysaccharides. Animal Feed Science Technology 23: 55–65CrossRefGoogle Scholar
MacArthur, L.A. and D'Appolonia, B.L. (1980) Comparison of the non-starchy polysaccharides in oats and wheats. Cereal Chemistry 57: 39–45Google Scholar
MacAuliffe, T. and McGinnis, J. (1971) Effect of antibiotic supplement to diets containing rye on chick growth. Poultry Science 50: 1130–1134Google Scholar
MacAuliffe, T., Zaviezo, D. and McGinnis, J. (1979) Effect of gamma irradiation, fractionation and penicillin supplementation on the rachitogenic activity of rye for chicks. Poultry Science 58: 329–332Google Scholar
Mares, D.J. and Stone, B.A. (1973) Studies on wheat endosperm. II. Properties of the wall components and studies on their organization in the wall. Australian Journal of Biological Sciences 26: 813–830Google Scholar
Misir, R. and Marquardt, R.R. (1978) Factors affecting rye (Secale cereale L.) utilization in growing chicks. I. The influence of rye level, ergot and penicillin supplementation. Canadian Journal of Animal Science 58: 691–701Google Scholar
Mollah, Y. and Annison, E.F. (1981) Prediction of metabolizable energy of wheat, maize and sorghum in poultry diets from chemical composition. Proceedings of the Nutritional Society of Australia 6: 137–138Google Scholar
Mollah, Y., Bryden, W.L., Wallis, I.R., Balnave, D. and Annison, E.F. (1983) Studies on low metabolizable energy wheats for poultry using conventional and rapid assay procedures and the effects of processing. British Poultry Science 24: 81–89CrossRefGoogle Scholar
Moran, E.T. Jr., Lall, S.P. and Summers, J.D. (1969) The feeding values of rye for the growing chick: effect of enzyme supplements, antibiotics, autoclaving and geographical area of poultry production. Poultry Science 48: 939–949Google Scholar
Nitzan, Z. and Bartov, I. (1972) Comparison between the nutritional value of potato and corn starch for chickens. Poultry Science 51: 836–840Google Scholar
Patel, M.B., Jami, M.S. and McGinnis, J. (1980) Effect of gamma irradiation, penicillin, and/or pectic enzyme on chick growth depression and fecal stickiness caused by rye, citrus pectin and guar gum. Poultry Science 59: 2105–2110Google Scholar
Patel, M.B., McGinnis, J. and Pubols, M.H. (1981) Effect of dietary cereal grain, citrus pectin and guar gum on liver fat in laying hens and young chicks. Poultry Science 60: 631CrossRefGoogle ScholarPubMed
Perlin, A.S. (1952) Isolation and composition of the soluble pentosans of wheat flour. Cereal Chemistry 28: 370–381Google Scholar
Pettersson, D. and Aman, P. (1988) Effects of enzyme supplementation of diets based on wheat, rye or triticale on their productive value for broiler chickens. Animal Feed Science and Technology 20: 313–324Google Scholar
Pettersson, D. and Aman, P. (1989) Enzyme supplementation of a poultry diet containing rye and wheat. British Journal of Nutrition 62: 139–149Google Scholar
Pettersson, D., Graham, H. and Aman, P. (1987) The productive value of whole and dehulled oats in broiler chicken diets, and influence of β-glucanase supplementation. Nutrition Reports International 36: 743–750Google Scholar
Preece, I.A. and Mackenzie, K.G. (1952) Non-starchy polysaccharides of cereal grains. I. Fractionation of the barley gums. Journal of the Institute of Brewing 58: 352–362Google Scholar
Ricks, E.L., Moscatelli, D.A. and Ott, W.H. (1962) The isolation and biological properties of a β-glucanase from B. subtilis. Archives of Biochemistry and Biophysics 96: 371–375Google Scholar
Rogel, A.M., Annison, E.F., Bryden, W.L. and Balnave, D. (1987a) The digestion of wheat starch in broiler chickens. Australian Journal of Agricultural Research 38: 639–649Google Scholar
Rogel, A.M., Balnave, D., Bryden, W.L. and Annison, E.F. (1987b) Improvement of raw potato starch digestion in chickens by feeding oat hulls and other fibrous feedstuffs. Australian Journal of Agricultural Research 38: 629–637Google Scholar
Saini, J.S. and Henry, R.J. (1989) Fractionation and evaluation of pentosans: comparisons with wheat and rye. Cereal Chemistry 66: 11–14Google Scholar
Salanitro, J.P., Blake, I.G., Muirhead, P.A., Maglio, M. and Goodman, J.R. (1978) Bacteria isolated from the duodenum, ileum and cecum of young chicks. Applied and Environmental Microbiology 35: 782–790Google Scholar
Suga, Y., Kawai, M., Noguchi, S., Shimura, G. and Samejima, H. (1978) Application of cellulolytic and plant tissue macerating enzyme of Irpex lacteus Fr. as seed additive enzyme. Agricultural and Biological Chemistry 42: 347–350Google Scholar
Verma, S.V.S. and McNab, J.M. (1982) Guar meal in diets for broiler chickens. British Poultry Sciences 23: 95–105Google Scholar
Vohra, P. and Kratzer, F.H. (1964) Growth inhibitory effect of certain polysaccharides for chickens. Poultry Science 43: 1164–1170Google Scholar
Wagner, D.D., Thomas, O.P. and Gruber, G. (1978) Anti-nutritional activity of a water-soluble pentosan-rich fraction from rye grain. Poultry Science 57: 971–975Google Scholar
Ward, A.T. and Marquardt, R.R. (1987) Anti-nutritional activity of a water-soluble pentosan-rich fraction from rye grain. Poultry Science 66: 1665–1674Google Scholar
White, W.B., Bird, H.R., Sunde, M.L., Burger, W.C. and Marlett, J.A. (1981) The viscosity interaction of barley β-glucan with Trichoderma viride cellulase in the chick intestine. Poultry Science 60: 1043–1048CrossRefGoogle ScholarPubMed
White, W.B., Bird, H.R., Sunde, M.L., Marlett, J.A., Prentice, N.A. and Burger, W.C. (1983) Viscosity of β-D-glucan as a factor in the enzymatic improvement of barley for chicks. Poultry Science 62: 853–862Google Scholar