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Effects of dietary supplementation of organic minerals on the performance of broiler chicks fed oxidised soybean oil

Published online by Cambridge University Press:  27 July 2017

T. Ao*
Affiliation:
Alltech-University of Kentucky Nutrition Research Alliance, Lexington, KY
L.M. Macalintal
Affiliation:
Alltech-University of Kentucky Nutrition Research Alliance, Lexington, KY
M.A. Paul
Affiliation:
Alltech-University of Kentucky Nutrition Research Alliance, Lexington, KY
A.J. Pescatore
Affiliation:
Alltech-University of Kentucky Nutrition Research Alliance, Lexington, KY
R.M. Delles
Affiliation:
Alltech-University of Kentucky Nutrition Research Alliance, Lexington, KY
A.H. Cantor
Affiliation:
Alltech-University of Kentucky Nutrition Research Alliance, Lexington, KY
M.J. Ford
Affiliation:
Alltech-University of Kentucky Nutrition Research Alliance, Lexington, KY
K.A. Dawson
Affiliation:
Alltech-University of Kentucky Nutrition Research Alliance, Lexington, KY
*
* Corresponding author: [email protected]

Summary

The oxidation (rancidity) of fat is a very common feed quality issue, which can negatively affect growth performance and meat quality of broilers. Besides other factors, metal ions such as Zn, Cu and Fe can facilitate lipid peroxidation in feed. The objective of the current study was to investigate the effect of feeding corn soy diets containing fresh or oxidised soybean oil with different forms of microminerals on production performance of broiler chicks. Dietary treatments consisted of a 2 × 2 factorial structure with two kinds of soybean oil (oxidised or fresh) and two forms of microminerals (inorganic or organic). Mineral proteinate (Bioplex®, Alltech Inc.) including Zn, Mn, Cu and Fe was used as the organic source and was supplemented at the level equivalent to 25% of an inorganic source in the control diets. Organic selenium (Sel-Plex®, Alltech Inc.) at 0.3 mg/kg of diet was used to replace sodium selenite used at 0.3 mg/kg of diet in control diet. Oxidised soybean oil was prepared by convection heat (90°C for a period of seven days in a convection oven). A total of 1152 one-day old chicks were allotted randomly to the four dietary treatments using 12 replicates of 24 chicks per pen. Chicks were raised in floor pens for 42 days in an environmentally controlled room with free access to feed and water. There was no statistical interaction between oil source and mineral form on performance or mineral content of breast meat. Feeding oxidised oil increased (P < 0.05) feed intake and decreased gain to feed ratio (FCE) of chicks. Supplementation with organic minerals improved (P < 0.05) weight gain and FCE of chicks. The breast meat of chicks fed organic mineral had higher (P < 0.01) Se content than those from the control group. The results indicated that the addition of organic minerals to broiler diets can minimise the negative impact of oxidised oil on the performance of broiler chicks.

Type
Original Research
Copyright
Copyright © Cambridge University Press and Journal of Applied Animal Nutrition Ltd. 2017 

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References

Analytical Software (2008) Statistix 9 User's Manual. (Tallahassee, U.S.A., Analytical Software).Google Scholar
Ao, T., Pierce, J.L., Power, R., Pescatore, A.J., Cantor, A.H., Dawson, K.A., and Ford, M.J. (2009) Effects of feeding different forms of zinc and copper on the performance and tissue mineral content of chicks. Poultry Science, 88:21712175.Google Scholar
Ao, T., Pierce, J.L., Pescatore, A.J., Cantor, A.H., Dawson, K.A., Ford, M.J., and Shafer, B.J. (2007) Effects of organic zinc and phytase supplementation in a maize-soybean meal diet on the performance and tissue zinc content of broiler chicks. British Poultry Science, 48: 690695.Google Scholar
AOCS (2007) Official Methods and Recommended Practices of the AOCS. 6th ed. (Champaign, U.S.A, American Oil Chemists’ Society Press).Google Scholar
Ayala, A., Muñoz, M.F., and Argüelles, S. (2014) Lipid peroxidation: production, metabolism, and signaling mechanisms of malondialdehyde and 4-hydroxy-2-nonenal. Oxidative Medicine and Cellular Longevity, 2014: 438469.CrossRefGoogle ScholarPubMed
Belitz, H.D., Grosch, W, and Schieberle, P. (2009) Lipids. In: Food Chemistry, pp:158245. (Berlin, Germany, Springer Press).Google Scholar
Bondet, V., Cuvelier, M.E., and Berset, C. (2000) Behavior of phenolic antioxidants in a partitioned medium: Focus on linoleic acid peroxidation induced by iron/ascorbic acid system. Journal of the American Oil Chemists' Society, 77: 813818.Google Scholar
Braughler, J.M., Duncan, L.A., and Chase, R.L. (1986) The involvement of iron in lipid peroxidation. Importance of ferric to ferrous ratios in initiation. Journal of Biological Chemistry, 261: 1028210289.Google ScholarPubMed
Cabel, M.C., Waldroup, P.W., Shermer, W.D., and Calabotta, D.F. (1988) Effects of Ethoxyquin Feed Preservative and Peroxide Level on Broiler Performance. Poultry Science, 67: 17251730.CrossRefGoogle ScholarPubMed
Cao, J., Henry, P.R., and Guo, R. (2000) Chemical characteristics and relative bioavailability of supplemental organic zinc sources for poultry and ruminants. Journal of Animal Science, 78: 20392054.Google Scholar
Delles, R.M., Xiong, Y.L., True, A.D., Ao, T., and Dawson, K.A. (2014) Dietary antioxidant supplementation enhances lipid and protein oxidative stability of chicken broiler meat through promoting antioxidant enzyme activity. Poultry Science, 93: 15611570.Google Scholar
Delles, R.M., Xiong, Y.L., True, A.D., Ao, T., and Dawson, K.A. (2015) Augmentation of water-holding and textural properties of breast meat from oxidatively stressed broilers through dietary antioxidant regimens. British Poultry Science, 56: 304314.Google Scholar
Dibner, J.J., Atwell, C.A., Kitchell, M.L., Shermer, W.D., and Ivey, F.J. (1996) Feeding of oxidised fats to broilers and swine: effect on enterocyte turnover, hepatocyte proliferation and the gut associated lymphoid tissue. Animal Feed Science Technology, 62: 113.CrossRefGoogle Scholar
Edens, F.W., and Gowdy, K.M. (2004) Selenium sources and selenoproteins in practical poultry production. in: Lyons, T.P. & Jacques, K.A. (Eds) Nutritional Biotechnology in the Feed and Food Industries , pp. 3555 (Nottingham, United Kingdom, Nottingham University Press).Google Scholar
Engberg, R.M., Lauridsen, C., Jensen, S.K., and Jakobsen, K. (1996) Inclusion of oxidised vegetable oil in broiler diets: Its influence on nutrient balance and on antioxidative status of broilers. Poultry Science, 75: 10031011.Google Scholar
Fei, C.S. (1995) The detrimental effects of feeding oxidised fats to animals. in: ASA Technical Bulletin, pp 021-1995.Google Scholar
Heindl, J., Ledvinka, Z., Englmaierová, M., Zita, L., and Tůmová, E. (2010) The effect of dietary selenium sources and levels on performance, selenium content in muscle and glutathione peroxidase activity in broiler chickens. Czech Journal of Animal Science, 55: 572578.Google Scholar
Hussein, A.S., and Kratzer, F.H. (1982) Effect of rancidity on the feeding value of rice bran for chickens. Poultry Science, 61: 24502455.Google Scholar
Ingold, K. (1962) Metal catalysis. in: Proceedings of the Symposium on foods: Lipids and their Oxidation, pp. 9398. (Westport, U.S.A., Avi Publishing Co.).Google Scholar
Inoue, T., Kurashige, A., Minetoma, T., and Shigyo, F. (1984) Nutritional effect of oxidised soybean oil in broiler diet. Proceedings of the XVII World's Poultry Congress, 1984: 368369.Google Scholar
Jankowski, J., Zdunczyk, Z., Koncicki, A., Juskiewicz, J., and Faruga, A. (2000) The response of turkeys to diets containing oxidised fat of differing degree of oxidation. Journal of Animal Feed Science, 9: 363370.CrossRefGoogle Scholar
Jensen, C., Engberg, R., Jacobsen, K., Skibsted, L.H., and Bertelsen, G. (1997) Influence of the oxidative quality of dietary oil on broiler meat storage stability. Meat Science, 47: 211222.Google Scholar
Lawrence, T.E., Dikeman, M.E., Hunt, M.C., Kastner, C.L., and Johnson, D.E. (2003) Effects of calcium salts on beef longissimus quality. Meat Science, 64: 299308.Google Scholar
Lin, C.F., Asghar, A., Gray, J.I., Buckley, D.J., Booren, A.M., Crackel, R.L., and Flegal, C.J. (1989) Effects of oxidised dietary oil and antioxidant supplementation on broiler growth and meat stability. British Poultry Science, 30: 855864.Google Scholar
Maestre, R., Pazos, M., Iglesias, J., and Medina, I. (2009) Capacity of reductants and chelators to prevent lipid oxidation catalyzed by fish hemoglobin. Journal of Agricultural and Food Chemistry, 57: 91909196.CrossRefGoogle ScholarPubMed
Matsuda, T., Tao, H., Goto, M., Yamada, H., Suzuki, M., and Wu, Y. (2013) Lipid peroxidation-induced DNA adducts in human gastric mucosa. Carcinogenesis, 34: 121127.Google Scholar
Narasimhamurthy, K., and Raina, P.L. (1999) Long term feeding effects of heated and fried oils on lipids and lipoproteins in rats. Molecular Cell Biochemistry, 195: 143153.Google Scholar
National Research Council (1994) Nutrient Requirements of Poultry . 9th rev. ed. (Washington DC, U.S.A., National Academy Press).Google Scholar
Ruiz, J.A., Perez-Vendrell, A.M., and Esteve-Garcia, E. (2000) Effect of dietary iron and copper on performance and oxidative stability in broiler leg meat. British Poultry Science, 41: 163–137.Google Scholar
Schultz, H.W., Day, E.A., and Sinnhuber, R.O. (1962) Lipid and their oxidation . (Westport, U.S.A., The AVI Publishing Company).Google Scholar
Sheehy, P.J.A., Morrissey, P.A., and Flynn, A. (1994) Consumption of thermally-oxidised sunflower oil by chicks reduces α-tocopherol status and increases susceptibility of tissues to lipid oxidation. British Journal of Nutrition, 71: 5365.CrossRefGoogle Scholar
Tavárez, M.A., Boler, D.D., Bess, K.N., Zhao, J., Yan, F., and Dilger, A.C. (2011) Effect of antioxidant inclusion and oil quality on broiler performance, meat quality, and lipid oxidation. Poultry Science, 90: 922–30.Google Scholar
Wiseman, J. (1999) Optimizing the role of fats in diet formulation. Proceedings of the Australian Poultry Science Symposium, 1999: 815.Google Scholar
Wong, D. (1989) Mechanism and Theory in Food Chemistry . (New York, U.S.A., Van Nostrand Reinhold Press).Google Scholar
Yaroshenko, F.O., Surai, P.F., Yaroshenko, Y.F., Karadas, F., and Sparks, N.H.C. (2004) Theoretical background and commercial application of production of Se-enriched chicken. Proceedings of XXII World's Poultry Congress, 2004: 845846.Google Scholar
Zdunczyk, Z., Jankowski, J., and Koncicki, A. (2002) Growth performance and physiological state of turkeys fed diets with higher content of lipid oxidation products, selenium, vitamin E and vitamin A. World's Poultry Science Journal, 58: 357364.Google Scholar