Methionine supplementation of low-protein diet and subsequent feeding of low-energy diet on the performance and blood chemical profile of broiler chickensP. Jariyahatthakij A , B. Chomtee B , T. Poeikhampha A , W. Loongyai A and C. Bunchasak A C
A Department of Animal Science, Faculty of Agriculture, Kasetsart University, Bangkok 10900, Thailand.
B Department of Statistics, Faculty of Science, Kasetsart University, Bangkok 10900, Thailand.
C Corresponding author. Email: email@example.com
Animal Production Science - https://doi.org/10.1071/AN16258
Submitted: 29 January 2016 Accepted: 31 October 2016 Published online: 18 January 2017
The effects were investigated of supplementing methionine (Met) in a low-crude protein diet (Low-CP+Met) during Days 11–24 post-hatch and subsequent feeding with a low-metabolisable energy diet (Low-ME; –0.31 MJ/kg) during Days 25–42 on the productive performance and blood chemistry profile of broiler chickens. The 1600 broiler chicks were divided into four groups and fed as follows: (1) Control diet; (2) Low-CP (Met deficiency) diet during Days 11–24, then re-feeding with conventional diet; (3) Low-CP+Met diet during days 11–24, then re-feeding with conventional diet; and (4) Low-CP+Met+Low-ME diet (Low-CP+Met diet during Days 11–24, then re-feeding with Low-ME diet). During Days 11–24, the growth performance of the Control group was better than the other groups (P < 0.01), although the Low-CP+Met diet improved bodyweight, feed conversion ratio and improved the protein conversion ratio compare to the Low-CP group (P < 0.01). During the re-feeding phase (Days 25–42), reducing the dietary energy resulted in better growth performance and a better protein conversion ratio and energy conversion ratio than in the Control group (P < 0.05). Triglyceride, very low-density lipoprotein, low-density lipoprotein-cholesterol and total cholesterol in serum were higher, and non-esterified fatty acid was lower in the Control group than those of the Low-CP+Met+Low-ME group (P < 0.05). In conclusion, reducing dietary protein with balanced amino acids during the grower period and subsequent feeding with a low-energy diet promoted productive performance, improved protein utilisation and reduced fat accumulation via increasing lipolysis and/or disruption of the triglyceride transportation in broiler chickens.
Additional keywords: amino acids balance, compensatory growth.
ReferencesAssociation of Official Analytical Chemists (AOAC) (2000) ‘Official methods of analysis.’ 17th edn. (Association of Official Analytical Chemists: Washington, DC)
Aviagen (2007) ‘Ross 308: broiler nutrition specification.’ (Aviagen Inc.: Huntsville, AL)
Berres J, Vieira SL, Dozier WA, Cortês EM, de Barros R, Nogueira ET, Kutschenko M (2010) Broiler responses to reduced-protein diets supplemented with valine, isoleucine, glycine, and glutamic acid. Journal of Applied Poultry Research 19, 68–79.
Bunchasak C (1997) The effect of supplementing sulfur amino acid to a low-protein diet on growth performance and fat accumulation of broiler chicks. PhD Thesis, University of Gifu, Japan.
Bunchasak C (2009) Role of dietary methionine in poultry production. Japanese Poultry Science 46, 167–179.
Bunchasak C, Keawarun N (2006) Effect of methionine hydroxyl analog-free acid on growth performance and chemical composition of liver of broiler chicks fed a corn-soybean based diet from 0 to 6 weeks of age. Animal Science Journal 77, 95–102.
Bunchasak C, Santoso U, Tanaka K, Ohtani S, Collado CM (1997) The effect of supplementing methionine plus cystine to a low-protein diet on the growth performance and fat accumulation of growing broiler chicks. Asian – Australasian Journal of Animal Sciences 10, 185–191.
Bunchasak C, Poosuwan K, Nukraew R, Markvichitr K, Choothesa A (2005) Effect of dietary protein on egg production and immunity responses of laying hens during peak production period. International Journal of Poultry Science 9, 701–708.
Bunchasak C, Ratchadapornvanitch Y, Thiengtham J (2012) Comparative effects of supplemental DL-2-hydroxy-4-[methylthio] butanoic acid and DL-methionine in diet on egg production and quality in laying hens. Japanese Poultry Science 49, 260–267.
Cabel MC, Goodwin TL, Waldroup PW (1987) Reduction in abdominal fat content of broiler chickens by the addition of feather meal to finisher diets. Poultry Science 66, 1644–1651.
Café MB, Waldroup PW (2006) Interaction between levels of methionine and lysine in broiler diets changed at typical industry intervals. International Journal of Poultry Science 5, 1008–1015.
Cauwenberghe SV, Burnham D (2001) New developments in amino acid and protein nutrition of poultry, as related to optimal performance and reduced nitrogen excretion. In ‘Proceeding of the 13th European symposium poultry nutrition’. pp. 141–149. (Blankenberg: Belgium)
Cheng TK, Hamre ML, Coon CN (1997a) Responses of broiler to dietary protein levels and amino acid supplementation to low-protein diets at various environmental temperatures. Journal of Applied Poultry Research 6, 18–33.
Cheng TK, Hamre ML, Coon CN (1997b) Effect of environmental temperature, dietary protein, and energy levels on broiler performance. Journal of Applied Poultry Research 6, 1–17.
Dean DW, Bidner TD, Southern LL (2006) Glycine supplementation to low protein, amino acid-supplemented diets supports optimal performance of broiler chicks. Poultry Science 85, 288–296.
Duncan DB (1955) Multiple range and multiple F test. Biometrics 11, 1–42.
Faria Filho DE, Rosa PS, Vieira BS, Macari M, Furlan RL (2003) Protein levels and environmental temperature effects on carcass characteristics, performance and nitrogen excretion of broiler chickens from 7 to 21 days of age. Brazilian Journal of Poultry Science 7, 247–253.
Friedewald WT, Levy RI, Fredrickson DS (1972) Estimation of concentration of low-density lipoprotein cholesterol in plasma without use of the ultra-centrifuge. Clinical Chemistry 18, 449–502.
Furlan RL, de Faria Filho DE, Rosa PS, Macari M (2004) Does low-protein diet improve broiler performance under heat stress conditions? Brazilian Journal of Poultry Science 6, 71–79.
Griffin HD, Whitehead CC, Broadbent LA (1982) The relationship between plasma triglyceride concentrations and body fat content in male and female broiler–a basis for selection? British Poultry Science 23, 15–23.
Hayashi K, Nakano M, Toyomizu M, Tomita Y, Iwamoto T, Shika A (1990) Effect of fasting early in life on performance, motality and muscle protein metabolism of broiler chicken in high temperature environment. Japanese Journal of Zootechnical Science 61, 264–270.
Hermier D, Chapman MJ, Leclercq B (1984) Plasma lipoprotein profile in fasted and refed chickens selected for high or low adiposity. The Journal of Nutrition 114, 1112–1121.
Hussein AS, Cantor AH, Pescatore AJ, Gates RS, Burnham D, Ford MJ, Paton ND (2001) Effect of low protein diets with amino acid supplementation on broiler growth. Journal of Applied Poultry Research 10, 354–362.
Jiang Q, Waldroup PW, Fritts CA (2005) Improving the utilization of diets low in crude protein for broiler chicken. 1. Evaluation of special amino acid supplementation to diets low in crude protein. International Journal of Poultry Science 4, 115–122.
Kamran Z, Sarwar M, Nisa M, Nedeem MA, Mahmood S, Babars ME, Ahmed S (2008) Effect of low-protein diets having constant energy to protein ratio on performance and carcass characteristics of broiler chickens from one to thirty-five day of age. Poultry Science 87, 468–474.
Lee KH, Leeson S (2001) Performance of broilers fed limited quantities of feed or nutrient during seven to fourteen days of age. Poultry Science 80, 446–454.
Leeson S, Caston L, Summers JD (1996) Broiler response to energy or energy and protein dilution in the finisher diet. Poultry Science 75, 522–528.
McMurtry JP, Rosebrough RW, Plavnik I, Cartwright HL (1988) Influence of early plane of nutrition on enzyme systems and subsequent tissue deposition. In ‘Biomechanisms regulating growth and development’. (Eds GL Steffens, TS Rumsey) pp. 329–341. (Kluwer Academic Publications: Dordrecht)
Namroud NF, Shivazad M, Zaghari M (2008) Effects of fortifying low crude protein diet with crystalline amino acids on performance, blood ammonia level, and excreta characteristics of broiler chicks. Poultry Science 87, 2250–2258.
Nukreaw R, Bunchasak C (2015) Effect of supplementing synthetic amino acids in low-protein diet and subsequent re-feeding on growth performance, serum lipid profile and chemical body composition of broiler chickens. Japanese Poultry Science 52, 127–136.
Nukreaw R, Bunchasak C, Markvichitr K, Choothesa A, Prasanpanich S, Loongyai W (2011) Effects of methionine supplementation in low-protein diets and subsequent re-feeding in growth performance, liver and serum lipid profile, body composition and carcass quality of broiler chickens at 42 days of age. Japanese Poultry Science 48, 229–238.
Ospina-Rojas IC, Murakami AE, Duarte CRA, Eyng C, Oliveira CAL, Janeiro V (2014) Valine, isoleucine, arginine and glycine supplementation of low-protein diets for broiler chickens during the starter and grower phases. British Poultry Science 55, 766–773.
Rakangtong C, Bunchasak C (2006) Effect of dietary protein and methionine on production performance and fecal composition of laying hens in closed hose system. King Mongkut’s Agricultural Journal 24, 14–26.
Rakangtong C, Bunchasak C (2011) Effects of total sulfur amino acids in corn-cassava-soybean diets on growth performance, carcass yield and blood chemical profile of male broiler chickens from 1 to 42 days of age. Animal Production Science 51, 198–203.
Rincon MU, Leeson S (2002) Quantitative and qualitative feed restriction on growth characteristics of male broiler chickens. Poultry Science 81, 679–688.
Rosebrough RW, McMurtry JP (1993) Energy repletion and lipid metabolism during compensatory gain in broiler chickens. Growth, Development, and Aging 57, 73–83.
Rostagno HS, Pupa JMR, Pack M (1995) Diet formulation for broilers based on total versus digestible amino acid. Journal of Applied Poultry Research 4, 293–299.
Saki AA, Mohammad PHA, Ahmdi A, Akhzar MT, Tabatabie MM (2007) Decreasing broiler crude protein requirement by methionine supplementation. Pakistan Journal of Biological Sciences 10, 757–762.
SAS (1988) ‘SAS user’s guide. Statistics.’ (SAS Institute: Cary, NC)
Schutte JB, Pack M (1995) Sulfur amino acid requirement of broiler chicks from fourteen to thirty-eight days of age. 1. Performance and carcass yield. Poultry Science 74, 480–487.
Stevens L (1996) ‘Avian biochemistry and molecular biology.’ (Cambridge University Press: Cambridge, UK)
Summers JD, Spratt D, Atkinson JL (1992) Broiler weight gain and carcass composition when fed diets varying in amino acid balance, dietary energy and protein level. Poultry Science 71, 263–273.
Sutton CD, Muir WM, Mitchell GE (1984) Cholesterol metabolism in the laying hen as influenced by dietary cholesterol, caloric intake, and genotype. Poultry Science 63, 972–980.
Yamazaki M, Murakami H, Nakashima K, Abe H, Takemasa M (2006) Effects of excess essential amino acids in low protein diet on abdominal fat deposition and nitrogen excretion of the broiler chicks. Japanese Poultry Science 43, 150–155.
Yang YX, Guo J, Yoon SY, Jin Z, Choi JY, Piao XS, Kim BW, Ohh SJ, Wang MH, Chae BJ (2009) Early energy and protein reduction: effects on growth, blood profiles and expression of genes related to protein and fat metabolism in broilers. British Poultry Science 50, 218–227.
Yu MW, Robinson FE (1992) The application of short-term feed restriction to broiler chicken production: a review. Journal of Applied Poultry Research 1, 147–153.
Zhan XA, Wang M, Ren H, Zhao RQ, Li JX, Tan ZL (2007) Effect of early feed restriction on metabolic programming and compensatory growth in broiler chickens. Poultry Science 86, 654–660.
Zubair AK, Leeson S (1996) Compensatory growth in the broiler chicken: a review. World’s Poultry Science Journal 52, 189–201.