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Irradiation of poultry feed II. Effect on nutrient composition

Published online by Cambridge University Press:  18 September 2007

S. Leeson  and
M. Marcotte
S. Leeson
Affiliation:
Department of Animal and Poultry Science, University of Guelph, Guelph, Ontario N1G 2W1Canada
M. Marcotte
Affiliation:
Nordion International, Kanata, Ontario K2K 1X8, Canada
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Abstract

Irradiation offers a potential method for effective microbial control of poultry feed. Birds fed such irradiated diets are not adversely affected and radiation status of the diet is unchanged. While radiation at 25–35 kGy is likely to raise feed temperature by only 5°C during processing, there seems to be loss in potency of certain nutrients. Most reports indicate loss in potency of all fat-soluble vitamins, and there are less consistent reports regarding thiamine and pyridoxine. At 25–35 kGy irradiation there will be around 15% loss of potency of these vitamins. Irradiation also causes increased peroxidation of fats, although this effect can be controlled by appropriate inclusion of antioxidants. There are no consistent reports of irradiation having any effect on protein quality or amino acid status of diets.

Keywords

Irradiationpoultry feednutritive valuevitaminsamino acidsfat peroxidation
Type
Research Article
Information
World's Poultry Science Journal , Volume 49 , Issue 2 , July 1993 , pp. 120 - 131
Copyright
Copyright © Cambridge University Press 1993

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References

Campbell, G.L., Sosulski, F.W., Classen, H.L. and Ballam, G.M. (1987) Nutritive value of irradiated and beta-glucanase treated wild oat groats (avena fatua L.) for broiler chickens. Animal Feed Science Technology 16: 243–252CrossRefGoogle Scholar
Coates, M.E., Ford, J.E. and Gregory, M.E. (1969) Effects of gamma irradiation on the vitamin content of diets for laboratory animals. Laboratory Animals 3: 39–49CrossRefGoogle Scholar
Coelho, M.B. (1991) Vitamin stability. Feed Management 42: 24–35Google Scholar
Cornwell, B.P., Greenwood, T., Crook, L.J. and Burson, D.M. (1969) Poultry feeding trial with irradiated grain. Wantage Research Laboratory Report. Wantage, Berkshire UKGoogle Scholar
Cox, C.L., Nikolaiczuk, N. and Idziak, E.S. (1969) Effect on gamma irradiation upon nutrient stability in poultry rations. Internal Report, Macdonald College, McGill UniversityGoogle Scholar
Eggum, B.O. and Swift, R.L. (1965) Irradiated blood meal and bone meal for rats. In: Yearbook for 1965. Autumn Meeting of the Agronomic Research Laboratory, Copenhagen, pp. 45–47Google Scholar
Elias, P.S. and Cohen, A.J. (1977) Radiation Chemistry of Major Food Components. Elsevier, AmsterdamGoogle Scholar
Eriksen, W.H., Hjarde, W., Lieck, H., Juul, A. and Embrog, C. (1973) Comparison of the biological effects in rats of radiation sterilized and autoclave sterilized food. Danish Atomic Energy Commission, Riso Report No. 260 DK-4000, Roskilde, DenmarkGoogle Scholar
Federal Register (1981) Document registration of the Government of the United States. Federal Register 46: 18992–18993Google Scholar
Federal Register (1984) Document registration of the Government of the United States. Federal Register 49: 5714–5722Google Scholar
Ferrando, R., Pantaleon, J. and Fromageot, D. (1968) Comparative study of classical sterilization and radappertization on a feed for the rat. Annals of Nutrition and Alimentation 22: 25–27Google Scholar
Ford, D.J. (1976) The effect of methods of sterilization on the nutritive value of protein in a commercial rat diet. British Journal of Nutrition 35: 267–276CrossRefGoogle Scholar
Ford, D.J. (1979) Observations on the influence of irradiation on fat and vitamin A in dry laboratory cat diets. In: Proceedings of Decontamination of Animal Feeds by Irradiation, FAO/IAEA, Washington, pp. 28–34Google Scholar
Ford, J.E. (1960) A microbiological method for assessing the nutritional value of proteins. British Journal of Nutrition 14: 485CrossRefGoogle ScholarPubMed
Hayakawa, S., Suzuki, H., Hayashi, T. and Kawashima, K. (1985) Effect of gamma-irradiation on the nutritive value of domestic animal feeds. Report of the Natural Food Research Institute 46: 109–113Google Scholar
Johnson, B., Connor, V. and Metta, C. (1956) Effect of irradiation sterilization on nutritive value of protein and energy in food. Federation Proceedings 15: 907–908Google Scholar
Kennedy, T.S. (1965) Studies on the nutritional value of foods treated with α-radiation. II. Effects on the protein in some animal feeds, egg and wheat. Journal of Science, Food and Agriculture 16: 433CrossRefGoogle Scholar
Kertesz, Z.I., Schultz, E.R., Fox, G. and Gibson, M. (1959) Effects of ionizing radiations on plant tissues. 4. Some effects of gamma radiation on starch and starch fractions. Food Research 24: 609CrossRefGoogle Scholar
Klinger, Y., Lapidot, M. and Ross, I. (1985) Feed radicidation in Israel – an update. In: Proceedings of Food Irradiation Processing, IAEA/FAO, WashingtonGoogle Scholar
Landolt, L. (1981) Comparison of non-irradiated and irradiated rodent laboratory chow 5001 when fed to rats. Protocol No. 810931, Ralston Purina Company, St Louis, USAGoogle Scholar
Landolt, L. (1982) The use of irradiation for the pasteurization or sterilization of pet foods and animal feeds. Ralston Purina Company, St Louis, USAGoogle Scholar
Leeson, S. and Marcotte, M. (1993) Irradiation of poultry feed I. Microbial status and bird response. World's Poultry Science Journal (submitted for publication)CrossRefGoogle Scholar
Ley, F.J. (1963) Technological aspects of food irradiation with particular reference to Salmonella elimination. In: Radiation Control of Salmonella in Food and Feed Products. Technical Service Report 22, IAEA, ViennaGoogle Scholar
Ley, F.J., Bleby, J., Coates, Marie E. and Paterson, J.S. (1969) Sterilization of laboratory animal diets using gamma radiation. Laboratory Animals 3: 221–254CrossRefGoogle Scholar
Lisitskaya, N. and Sintserova, O. (1986) Irradiated wood shavings as a source of feed. Ptitsevodstvo 2: 24–25Google Scholar
Mameesh, M.S., Metta, V.C., Rao, P.B.R. and Johnson, B.C. (1962) On the cause of vitamin K deficiency in male rats fed irradiated beef and the production of vitamin K deficiency using amino acid synthetic diet. Journal of Nutrition 77: 165–170CrossRefGoogle ScholarPubMed
Metta, V.C. and Johnson, B.C. (1959) Biological value of gamma-irradiated corn protein and wheat gluten. Journal of Agriculture and Food Chemistry 7: 131CrossRefGoogle Scholar
Mossel, D.A.A. and De Groot, A.P. (1964) Experience with the use of pasteurizing doses of gamma irradiation for the destruction of salmonella and other Enterobacteriaceae in some foods of low water activity. Internal Report, Central Institute of Nutrition and Food Research, Utrecht, The NetherlandsGoogle Scholar
National Research Council (1984) Nutrient Requirements of Poultry. 7th Edn. National Academy of Sciences, Washington, DCGoogle Scholar
Odamtten, G.T., Appiah, V. and Langerak, D.L. (1986) Preliminary studies of the effects of heat and gamma irradiation on the production of aflatoxin B1 in static liquid culture by A. flavus link NRRL 5960. International Journal of Food Microbiology 3: 114–118CrossRefGoogle Scholar
Porter, G. and Festing, M. (1970) A comparison between irradiated and autoclaved diets for breeding mice, with observations on palatability. Laboratory Animals 4: 203–213CrossRefGoogle ScholarPubMed
Read, M.S. (1960) The effects of ionizing radiation on the nutritive value of foods. Proceedings of the International Conference on the Preservation of Foods by Ionizing Radiation, July 1959, United States Atomic Energy Commission Technical Information, Washington, pp. 138–152Google Scholar
Richardson, L.R., Woodworth, P., and Coleman, S. (1956) Effect of ionizing radiations on vitamin K. Federation Proceedings 15: 924–926Google Scholar
Scribney, M., Lewis, U.J. and Schweigert, B.S. (1955) Effect of radiation on meat fats. Journal of Agricultural and Food Chemistry 3: 958CrossRefGoogle Scholar
Takigawa, , Akihiro, , Danbara, H. and Ohyama, Y. (1976) Gamma ray irradiation to semi-purified diet – peroxide formation and its effects on chicks. Japanese Journal of Zootechnological Science 47: 292–302Google Scholar
Takigawa, , Akihiro, , Danbara, H. and Ohyama, Y. (1977) Gamma ray irradiation to conformation peroxide and its effects on chicks. Japanese Journal of Zootechnological Science 48: 27–33Google Scholar
Toyama, K., Hayashi, T., Watanabe, E., Hattori, S. and Sugahrara, M. (1990) Changes of gizzerosine concentration in brown fish meal by additional heating and/or gamma-ray radiation. Journal of Tokyo University of Fisheries 77: 119–128Google Scholar