Induced Molting in Culled White Leghorn (Gallus gallus) Using Fasting and Low Protein Diet

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Research Paper 09/02/2023
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Induced Molting in Culled White Leghorn (Gallus gallus) Using Fasting and Low Protein Diet

Eddie C. Bautista Jr.
Int. J. Biosci. 22(2), 192-202, February 2023.
Copyright Statement: Copyright 2023; The Author(s).
License: CC BY-NC 4.0

Abstract

When birds return to the full feed, new plumage develops and the birds resume egg production at a higher rate with better egg quality. Induced molting extends the productive life of commercial chicken flocks and results in a substantial reduction in the number of chickens needed to produce the nation’s egg supply. The study was conducted to evaluate induced molting in culled white leghorn (Gallus gallus) using a fasting and low-protein diet. The completely randomized design (CRD) with ten replication was used to test the following treatments: T1 (fasting); T2 (medium-cracked maize); T3 (rice bran); T4 (cracked rice); and T5 (control). Results revealed that T1 has the highest test value of crude fat with 48.30 percent. In terms of crude protein, T3 obtained 42.82 percent, while crude fiber T2 had 0.90 percent. On the other hand, T3 and T4 produced the highest protein-content eggs, while T1 produced a total fat level of 48.30%. Each treatment’s egg yield varies in terms of crude protein and crude fats, according to laboratory examination. The lab research also shows that eggs from T3 and T4 are far healthier than eggs from other treatments. Induced hens should be kept for 290 days to achieve maximum laying percentage; keeping them longer will boost feed intake but reduce laying percentage. Keeping hens for a long time increases their risk of developing reproductive anomalies such as uterine prolapse and vent hemorrhages.

Baker M, Brake J, McDaniel GR. 1983. The relationship between body weight loss during an induced-molt and post-molt egg production, egg weight and shell quality in caged layers. Poultry Science 62, 409-413.

Biggs PA, Douglas MW, Koelkebeck KW, Parsons CM. 2003. Evaluation of non-feed removal methods for molting programs. Poultry Science 82, 749−753.

Biggs PE, Persia ME, Koelkebeck KW, Parsons CM. 2004. Further evaluation of nonfeed removal methods for molting programs. Poultry Science 83, 745-752.

Breeding SW, Brake J, Garlich JD, Johnson AL. 1992. Poultry Science 71, 168-180.

Donalson LM, Kim WK, Woodward CL, Herrera P, Kubena LF, Nisbet DJ, Ricke SC. 2005. Utilizing different ratios of alfalfa and layer ration for molt induction and performance in commercial laying hens. Poultry Science 84, 362−369.

Dunkley CS, Friend TH, McReynolds JL, Woodward CL, Kim WK, Dunkley KD, Kubena LF, Nisbet DJ and Ricke SC. 2008. Behavioral responses of laying hens to different alfalfa-layer ration combinations fed during molting. Poultry Science 87, 1005- 1011.

Ellis MR. Moulting: a natural process. 2000. Available from:  Error! Hyperlink reference not valid. Keshavarz K, Quimby FW. 2002. An investigation of different molting techniques with an   emphasis on animal welfare. Journal of Applied Poultry Research 11, 54-67.

Landers KL, Woodward Cl, Li X, Kubena LF, Nisbet DJ, Ricke SC. 2005. Alfaalfa as a singledietary source for molt induction on laying hens. Biotechnology 96, 565-570.

Moog Djp, Peralta R.J. 2003. Mechanical properties of egg shell in relation to its handling and transport, Philippine Journal of Veterinary and Animal Sciences 29, 71 -81.

McCovan B, Schrader J, Dilorenzo AM, Cardona C, Klingborg D. 2006. Effects of induced molting on the well-being of egglayinghens. Journal of Applied Animal Welfare Science 9, 9−23.

McCowan B, Schrader J, DiLorenzo AM, Cordona C, Klingborg D. 2006. Effects of Induced molting on the well-being of egg-laying hens. Journal of Applied Animal Welfare Science 9(1), 9-23.

McReynolds JL, Moore RW, Kubena LF, Byrd JA, Woodward CL, Nisbet DJ, Ricke SC. 2006. Effect of various combinations of alfalfa and standard layer diet on susceptibility of laying hens to Salmonella Enteritidis during forced molt. Poultry Science 85, 1123−1128.

Onbasilar EE, Erol H. 2007. Effects of different forced molting methods on post molt production, corticosterone level, and immune responce to sheep red blood cells in laying hens. Journal of Applied Poultry Research 16, 529-536.

Ramos RB, Fuentes MFF, Espíndola GB, Lima FAM, Freitas ER. 2009. Efeito de métodos de mudaforçadasobre o desempenho de poedeirascomerciais. Revista Brasileira de Zootecnia; 28(6), 1340-1346.

Petek M. 2001. Effect of different force molting programmes on main production parameters in commercial laying hens.Journal of Faculty of Veterinary Medicine, University of Uludag, 20, 39−44.

Ozturk E. 2012. Effects of humic acids on broiler performance and digestive tract traits. Poultry Science 12(6), 10-24.

Gordon R. Bryant MM, Roland DA. 2009. Performance and profitability of second- cycle laying hens as influenced by body weight and body weight reduction during molt. Journal of Applied Poultry Research 18(2), 223-231.

Yildiz H, Alpay F. 2008. Effects of different moulting diets on bonecharacteristicsandre productive tracts in commercial brown egg laying hens. Veterinarski Arhiv 78, 227−234. (Retrieved from the World Wide Web on December 15, 2016. https://lawsource.org/pub/ph/ibr/pns.33.2011.pdf

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