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Interaction of Breed-by-chitosan Supplementation on Growth and Feed Efficiency at Different Supplementing Ages in Broiler Chickens

  • Suk, Y.O. (Department of Applied Animal Science, Division of Life Resources, Sahmyook University)
  • Received : 2004.03.20
  • Accepted : 2004.07.02
  • Published : 2004.12.01

Abstract

Three experiments were conducted to investigate the interaction of breed-by-chitosan supplementation on the major economic traits in broiler chickens. In experiment 1, one-day-old broiler chicks were fed ad libitum on a basal diet (CON-group) or basal diet containing chitosan at an inclusion level of 10.5 mg/bird/day (EXP-group). The EXP-group birds in experiments 2 and 3 were supplemented from 15 day-old by the same amount of chitosan used in experiment 1. In experiment 1, the mean body weight of the EXP-group chickens was significantly (p<0.05) heavier in comparison with those of CON-group birds from day 21 of the experiment. Especially in 35 day-old mean body weight, the EXP-group birds of Arbor Acres, Peterson, and Ross were significantly (p<0.05) heavier by 121.8 g, 118.5 g, and 242.8 g than the CON-group birds, respectively. However, the mean body weights in experiments 2 and 3 did not significantly differ between the CON-group birds and the EXP-group birds fed with chitosan supplementation from day 15 post birth. In the comparisons among breeds on the mean body weight at 35 day-old, the birds of Arbor Acres were significantly (p<0.05) heavier than ones of Peterson or Ross; however, there were no significant differences between Peterson and Ross or Cobb and Ross birds in overall in the experiments. The mean 15-35 d FCR of the EXP-group birds in experiment 1 were significantly (p<0.05) lower at least in two of the three breeds (Arbor Acres and Ross breeds) than that of the CON-group birds. None of the mean 15-35 d FCR in either experiment 2 or 3 showed significant differences between groups within a breed. In all three experiments, the differences amongst breeds in the mean 15-35 d FCR were not great either. Significant differences were not generally shown in the mean percentage of abdominal fat deposition between groups within a breed in overall experiments except in the Cobb breed in experiment 3. The mean percentages of abdominal fat deposition were significantly (p<0.05) lower in Ross birds than in Arbor Acres or Peterson birds and in Cobb birds than in Ross birds. By the results of the analysis of variance, the interaction of breed-by-diet (chitosan) supplementation on any of the major economic traits including mean percentage of abdominal fat deposition was not significant in overall experiments. Results of these experiments indicate that dietary supplementation with chitosan for the improvement of growth or feed conversion ratio in broilers has an efficacy when the supplementation begins from day-old.

Keywords

References

  1. Adams, R. L., F. N. Andrews, E. E. Gardiner, W. E. Fontaine and C. W. Carrick. 1962. The effects of environmental temperature on the growth and nutritional requirements of the chick. Poult. Sci. 41:588-594.
  2. Akiba, Y., M. Toyomizu, K. Takahashi and K. Sato. 2001. Nutrition: the key role for optimisation of growth and carcass quality in broiler chickens. Asian-Aust. J. Anim. Sci. Vol. 14: Special Issue, 148-163.
  3. Asmundson, V. S. and I. M. Lerner. 1934. Inheritance of rate of growth in domestic fowl. III. Comparative rates of growth of Leghorns and Rocks. Poultry Sci. 13:348-352.
  4. Bae, K. H., H. J. Kim and M. K. Kim. 1997. Effect of dietary chitin, chitosan and NOCC on cadmium toxicity and lipid metabolism in rats. Kor. J. Nutr. 30(6):622-633.
  5. Baik, D. H., M. A. Hoque and H. S. Choe. 2002. Estimation of genetic and environmental parameters of carcass traits in Hanwoo (Korean Native Cattle) populations. Asian-Aust. J. Anim. Sci. 15:1523-1526.
  6. Beck, W. A., J. V. Spencer, L. W. Mirosh and J. A. Verstrate. 1981. Abdominal and carcass fat in five broiler strains. Poult. Sci. 60:693-697.
  7. Bhuiyan, A. K. F. H., G. Dietl and G. Klautschek. 2004. The genetic development of sire, dam and progenies and genotype x environment interaction in a beef breeding system. Asian-Aust. J. Anim. Sci. 17(1):13-17.
  8. Blow, W. L. and E. W. Glazener. 1952. The appraisal of conformation in broilers. Poult. Sci. 31:654-658.
  9. Bryner, S. M., J. W. Mabry, J. K. Bertland, L. L. Benyshek and L. A. Kriese. 1992. Estimation of direct and maternal heritability and genetic correlation for backfat and growth rate in swine using data from centrally tested Yorkshire boars. J. Anim. Sci. 70:1755-1759.
  10. Cahaner, A. 1988. Experimental divergent selection on abdominal fat in broilers-female and male type lines and their crosses. In: (Ed. B. Leclercq and C. C. Whitehead). Leanness in Domestic Birds: Genetic, Metabolic and Hormonal Aspects. Butterworths and INRA, London and Paris.
  11. Furda, I. 1983. Aminopolysaccharides-their potential as dietary fiber. In: Unconventional Sources of Dietary Fiber. American Chemical Society Symposium Series no. 214, pp. 105-122. Washington DC: American Chemical Society.
  12. Furda, I. 1990. Interaction of dietary fiber with lipids-mechanistic theories and their limitations. In: New Developments in Dietary Fiber. pp. 67-82 (Ed. I. Furda and C. J. Brine). New York: Plenum Press.
  13. Hicks, C., M. Satoh, K. Ishii and S. Kuroki. 1999. Effect of sex on estimates of genetic parameters for daily gain and ultrasonic backfat thickness in swine. Asian-Aust. J. Anim. Sci. 12:677-681.
  14. Hirano, S., C. Itakura, H. Seino, Y. Akiyama, I. Nonaka, N. Kanbara and T. Kawakami. 1990. Chitosan as an ingredient for domestic animal feeds. J. Agric. Food Chem. 38:1214-1217.
  15. Ikeda, I., M. Sugano, K. Yoshida, E. Sasaki, Y. Iwamoto and K. Hatano. 1993. Effects of chitosan hydrolysates on Lipid absorption and on serum and liver lipid concentrations in rats. J. Agric. Food Chem. 41:431-435.
  16. Johnson, I. T. and J. M. Gee. 1981. Effect of gel-forming gums on the intestinal unstirred layer and sugar transport in vitro. Gut 22:398-403.
  17. Kaushik, R. and R. S. Khanna. 2003. Efficiency of different selection indices for desired gain in reproduction and production traits in Hariana cattle. Asian-Aust. J. Anim. Sci. 16(6):789-793.
  18. Khajarern, J. M., S. Khajarern, T. H. Moon and J. H. Lee. 2003. Effects of dietary supplementation of fermented chitinchitosan (FERMKIT) on toxicity of mycotoxin in ducks. Asian-Aust. J. Anim. Sci. Vol. 16(5):706-713.
  19. Kim, J. I., Y. G. Sohn, J. H. Jung and Y. I. Park. 2004. Genetic parameter estimates for backfat thickness at three different sites and growth rate in swine. Asian-Aust. J. Anim. Sci. 17(3):305-308.
  20. Kim, M. K. and E. Y. Seol. 1994. Effect of Dietary chitin and chitosan on cadmium toxicity and lipid metabolism in rats. Kor. J. Nutr. 27(1):996-1006.
  21. Kinney, T. B. Jr. 1969. A summary of reported estimates of heritabilities and of genetic and phenotypic correlations for traits of chickens. Agric. Handbook No. 363, Agric. Res. Service, USDA.
  22. Kobayashi, S. and H. Itoh. 1991. Effect of dietary chitin and chitosan on growth and abdominal fat deposition in chicks. Jpn. Poult. Sci. 28:88-94.
  23. Kobayashi, S., Y. Terashima and H. Itoh. 2002. Effect of dietary chitosan on fat deposition and lipase activity in digesta in broiler chickens. Br. Poult. Sci. 43:270-273.
  24. Leclercq, B. 1988. Genetic selection of meat-type chickens for high or low abdominal fat content. In: (Ed. B. Leclercq and C. C. Whitehead). Leanness in Domestic Birds: Genetic, Metabolic and Hormonal Aspects. Butterworths and INRA, London and Paris.
  25. Lee, D. H. and H. C. Kim. 2004. Genetic relationship between ultrasonic and carcass measurements for meat qualities in Korean steers. Asian-Aust. J. Anim. Sci. 17(1):6-12.
  26. Lee, J. M. and B. K. Son. 1998. Effects of chitosan of different molecular weights on lipid metabolism in rats. Kor. J. Nutr. 31(2):143-152.
  27. Lee, J. M., W. K. Cho and H. J. Park. 1998. Effects of chitosan treated with enzymatic methods on glucose and lipid metabolism in rats. Kor. J. Nutr. 1(7):1112-1120.
  28. Leenstra, F. R. 1988. Selection for leanness: results of the Spelderholt experiment. In: (B. Leclercq and C. C. Whitehead). Leanness in Domestic Birds: Genetic, Metabolic and Hormonal Aspects. Butterworths and INRA, London and Paris.
  29. Liu, W. Z., G. Q. Gao, Z. X. Zhou and G. X. Zhang. 2002. Estimation of genetic and phenotypic covariance function for body weight as longitudinal data of SD-II swine line. Asian-Aust. J. Anim. Sci. 15(5):622-626.
  30. Marks, H. L. 1988. Genetic manipulation of abdominal fat in broilers. CRC Critical Rev. Poult. Biol. 1:271-284.
  31. Patton, R. S. and P. T. Chandler. 1974. In vivo digestibility evaluation of chitonous materials. J. Dairy Sci. 58(3):397- 402.
  32. Pittler, M., N. Abbot, E. Harkness and E. Ernst. 1999. Randomized, double-blind trial of chitosan for body weight Reduction. Epn. J. Clin. Nutr. 53:379-381.
  33. Pym RAE. 1990 Nutritional genetics. Poultry Breeding and Genetics pp. 847-876.
  34. Razdan, A. and D. Petterson. 1994. Effect of chitin and chitosan on nutrient digestibility and plasma lipid concentrations in broiler chickens. Br. J. Nutr. 72(2):277-288.
  35. Razdan, A. and D. Petterson. 1996. Hypolidaemic, gastrointestinal and related responses of broiler chickens to chitosans of different viscosity. Br. J. Nutr. 76(3):387-397.
  36. Razdan, A., D. Petterson and J. Pettersson. 1997. Broiler chicken body weights, feed intakes, plasma lipid and small-intestinal bile acid concentrations in response to feeding of chitosan and pectin. Br. J. Nutr. 78(2):283-291.
  37. Riccardo, A. and A. Muzzarelli. 1996. Chitosan-based dietary foods. Carbohydrate Polymers 29:309-316.
  38. SAS. 2002. SAS User's guide: Statistics, SAS Inst Inc Cary, NC, USA.
  39. Sellers, A. F. 1977. Genesis and propagation of motor activity in the digestive tract. In: Dukes’ Physiology of Domestic Animals, (Ed. M. J. Swenson). pp. 233-239. Ithaca, New York.
  40. Seo, D. S., J. S. Yun, W. J. Kang, G. J. Jeon, K. C. Hong and Y. Ko. 2001. Association of insulin-like growth factor I gene polymorphism with serum IGF-I concentration and body weight in Korea Native Ogol chicken. Asian-Aust. J. Anim. Sci. 14(7):915-921.
  41. Siegel, P. B. 1962. A double selection experiment for body weight and breast angle at eight weeks of age in chickens. Genetics 47:1313-1319.
  42. Siegel, P. B. 1984. Factors influencing, excessive fat deposition in meat poultry. 1. Genetics. Proc. $17^{th}$World’ Poultry Congress (Helsinki) 51-52.
  43. Sugano, M., T. Fujikawa, Y. Hiratsuji, K. Nakashima, N. Fukuda and Y. Hasegawa. 1980. A novel use of chitosan as a hypocholesterolemic agent in rats. Am. J. Clin. Nutr. 33:787-793.
  44. Sugano, M., S. Watanabe, A. Kishi, M. Izume and A. Ohtakara. 1988. Hypocholesterolemic action of chitosans with different viscosity in rats. Lipids 23:187-191.
  45. Suk, Y. O. and W. K. Kim. 1981. Studies on the variation of abdominal fat deposition by various mating systems in broiler chicks. J. Kor. Anim. Sci. 24:1-9.
  46. Suk, Y. O. and K. W. Washburn. 1995. Effects of growth and environment on efficiency of feed utilization, carcass fatness, and their association. Poult. Sci. 74:285-296.
  47. Suk, Y. O. and K. W. Washburn. 1998. The relationship between parental yolk cholesterol and yolk fat concentration to abdominal fat content and feed conversion ratio of their respective offspring. Poult. Sci. 77:377-378.
  48. Wang, W., H. Lusheng, C. Kefei, G. Jun, R. Jun, A. Huashui and L. Wanhua. 2002. Polymorphism of insulin-like growth factor-I gene in 13 pig breeds and its relationship with pig growth and carcass traits. Asian-Aust. J. Anim. Sci. 15(10):1391-1394.
  49. Wang, W., K. Ouyang, J Ouyang, H. Li, S. Lim and H. Sun. 2004. Polymorphism of insuline-like growth factor I gene in six chicken breeds and its relationship with growth traits. Asian-Aust. J. Anim. Sci. 17(3):301-304.
  50. Washburn, K. W. 1990. Effect of restricted feeding on fatness, efficiency, and the relationship between fatness and efficiency in broilers. Poult. Sci. 69:502-508. https://doi.org/10.3382/ps.0690502
  51. Weiner, M. I. 1992. An overview of the regulation status and of the safety of chitin and chitosan as food and pharmaceutical ingredients. Advances in chitin and chitosan. Elsevier, Applied Science p. 663.
  52. Whitehead, C. C. 1988. Selection for leanness in broilers using plasma lipoprotein concentration as selection criterion. In: (B. Leclercq and C. C. Whitehead), Leanness in Domestic Birds: Genetic, Metabolic and Hormonal Aspects. Butterworths and INRA, London and Paris.
  53. Wuolijoki, E., T. Hirvela and P. Ylitalo. 1999. Decrease in serum LDL cholesterol with microcrystalline chitosan. Methods Find Exp. Clin. Pharmacology, June, 21(5):357-361.
  54. Yang, R. Q., H. Y. Ren, S. Z. Xu and Y. C. Pan. 2004. Estimation of genetic parameters for body weight in Chinese Simmental cattle using random regression model. Asian-Aust. J. Anim. Sci. 17(7):914-918.

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