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Partitioning of limiting protein and energy in the growing pig: testing quantitative rules against experimental data

Published online by Cambridge University Press:  08 March 2007

Fredrik B. Sandberg ,
Gerry C. Emmans  and
Ilias Kyriazakis
Fredrik B. Sandberg*
Affiliation:
Animal Nutrition and Health Department, Scottish Agricultural College, West Mains Road, Edinburgh, EH9 3JG, UK
Gerry C. Emmans
Affiliation:
Animal Nutrition and Health Department, Scottish Agricultural College, West Mains Road, Edinburgh, EH9 3JG, UK
Ilias Kyriazakis
Affiliation:
Animal Nutrition and Health Department, Scottish Agricultural College, West Mains Road, Edinburgh, EH9 3JG, UK
*
*Corresponding author: Mr Fredrik B. Sandberg, Animal Nutrition and Health Department, Scottish Agricultural College, Bush Estate, Penicuik EH26 0PH, UK, fax +44 (0)131 535 3121, email [email protected]
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Abstract

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Literature solutions to the problem of protein and energy partitioning in the growing pig are quantitatively examined. Possible effects of live weight, genotype and food composition on the marginal response in protein retention to protein and energy intakes, on protein and energy-limiting foods are quantified. No evidence was found that the marginal response in protein retention to ideal protein supply, when protein intake is limiting, is affected by live weight, genotype or environmental temperature. There was good evidence that live weight does not affect the marginal response in protein retention to energy intake when protein intake is not limiting. Limited data for different genotypes suggested no effects on this response. A general quantitative partitioning rule is proposed that has two key parameters; ep* (the maximum marginal efficiency for retaining the first limiting amino acid) and R* (the maximum value of R, the energy to protein ratio of the food, MJ metabolisable energy (ME)/kg digestible crude protein (DCP), when ep* is just achieved). When R<R* the material efficiency of using ideal protein is (ep*/R*)× R. The value of ep* was determined to be 0·763 (se 0·0130). There was no good experimental evidence that ep* is different for different amino acids. The best estimate of R* was 67·9 (se 1·65) MJ ME/kg DCP. Live weight, genotype and temperature did not affect the values of either parameter. A more general understanding of partitioning, including the effects of ‘stressors’ such as disease, may be achieved by using the preferred rule as a starting point.

Keywords

SwineGrowthPartitioningProteinEnergy
Type
Research Article
Information
British Journal of Nutrition , Volume 93 , Issue 2 , February 2005 , pp. 213 - 224
Copyright
Copyright © The Nutrition Society 2005

References

Baker, DH (1991) Partitioning of nutrients for growth and other metabolic functions: efficiency and priority considerations. Poult Sci 70, 1797–1805.Google Scholar
Baker, DH, Fernandez, SR, Parsons, CM, Edwards, HM, Emmert, JL & Webel, DM (1996) Maintenance requirement for valine and efficiency of its use above maintenance for accretion of whole body valine and protein in young chicks. J Nutr 7, 1844–1851.Google Scholar
Batterham, ES, Andersen, LM, Braigent, DR & White, E (1990) Utilisation of ileal digestible amino acids by growing pigs: effect of dietary lysine concentration on efficiency of lysine retention. Br J Nutr 64, 81–94.Google Scholar
Berschauer, F, Close, WH & Stephens, DB (1983) The influence of protein: energy value of the ration and level of feed intake on the energy and nitrogen metabolism of the growing pig. 2. N metabolism at two environmental temperatures. Br J Nutr 49, 271–283.Google Scholar
Bikker, P, Karabinas, V, Verstegen, MWA & Campbell, RG (1995) Protein and lipid accretion in body components of growing gilts (20 to 45 kilograms) as affected by energy intake. J Anim Sci 73, 2355–2363.CrossRefGoogle ScholarPubMed
Bikker, P, Verstegen, MWA & Bosch, MW (1994a) Amino acid composition of growing pigs is affected by protein and energy intake. J Nutr 124, 1961–1969.Google Scholar
Bikker, P, Verstegen, MWA & Campbell, RG (1996) Performance and body composition of finishing gilts (45 to 85 kilograms) as affected by energy intake and nutrition in earlier life: II. Protein and lipid accretion in body components. J Anim Sci 74, 817–826.Google Scholar
Bikker, P, Verstegen, MWA, Campbell, RG & Kemp, B (1994b) Digestible lysine requirement of gilt's with high genetic potential for lean gain, in relation to the level of energy intake. J Anim Sci 72, 1744–1753.CrossRefGoogle Scholar
Birkett, S, de Lange, K (2001) Limitations of conventional models and a conceptual framework for a nutrient flow representation of energy utilisation by animals. Br J Nutr 86, 647–659.Google Scholar
Black, JL, Davies, GT, Bray, HJ, Giles, LR & Chapple, RP (1986) Simulation of energy and amino acid utilisation in the pig. Res Dev Agric 3, 121–145.Google Scholar
Black, JL, Davies, GT, Bray, HJ, Giles, LR & Chapple, RP (1995) Modelling the effects of genotype, environment and health on nutrient utilisation.In Proceedings of IVth International Workshop on Modelling Nutrient Utilisation of Farm Animals, 85–105 [Danfaer, ALescoat, P, editors] Tjele, Denmark: National Institute of Animal Science.Google Scholar
Black, JL & Griffiths, DA (1975) Effects of live weight and energy intake on nitrogen balance and total N requirement of lambs. Br J Nutr 33, 399–413.CrossRefGoogle ScholarPubMed
Boisen, S, Hvelplund, T & Weisbjerg, MR (2000) Ideal amino acid profiles as a basis for feed protein evaluation. Livestock Prod Sci 64, 239–251.CrossRefGoogle Scholar
Campbell, RG & Dunkin, AC (1983a) The effects of energy intake and dietary protein on nitrogen retention, growth performance, body composition and some aspects of energy metabolism of baby pigs. Br J Nutr 49, 221–230.CrossRefGoogle ScholarPubMed
Campbell, RG & Dunkin, AC (1983b) The influence of dietary protein and energy intake on the performance, body composition and energy utilisation of pigs growing from 7 to 19 kg. Anim Prod 36, 185–192.Google Scholar
Campbell, RG & Taverner, MR (1988) Relationships between energy intake and protein and energy metabolism, growth and body composition of pigs kept at 14 or 32 degree C from 9 to 20 kg. Livestock Prod Sci 18, 289–303.CrossRefGoogle Scholar
Campbell, RG, Taverner, MR & Curic, DM (1984) Effect of feeding level and dietary protein content on the growth, body composition and rate of protein deposition in pigs growing from 45 to 90 kg. Anim Prod 38, 233–240.Google Scholar
Campbell, RG, Taverner, MR & Curic, DM (1985a) The influence of feeding level on the protein requirement of pigs between 20 and 45 kg live weight. Anim Prod 40, 489–496.Google Scholar
Campbell, RG, Taverner, MR & Curic, DM (1985b) Effects of sex and energy intake between 48–90 kg live weight on protein retention in growing pigs. Anim Prod 40, 497–503.Google Scholar
Campbell, RG, Taverner, MR & Rayner, CJ (1988) The tissue and dietary protein and amino acid requirement of pigs from 8 to 20 kg live weight. Anim Prod 46, 283–290.Google Scholar
Chung, TK & Baker, DH (1992) Efficacy of dietary methionine utilisation by young pigs. J Nutr 122, 1862–1869.Google Scholar
Close, WH, Mount, LE & Brown, D (1978) The effects of plane of nutrition and environmental temperature on the energy metabolism of the growing pig. 2. Growth rate, including protein and fat deposition. Br J Nutr 40, 423–431.Google Scholar
Close, WH & Stanier, MW (1984) Effects of plane of nutrition and environmental temperature on the growth and development of the early-weaned piglet. 1. Growth and body composition. Anim Prod 38, 211–220.Google Scholar
Coop, RL & Kyriazakis, I (2001) Influence of host nutrition on the development and consequences of nematode parasitism in ruminants. Trends Parasitol 17, 325–330.Google Scholar
Curnow, RN (1978) A smooth population response curve based on an abrupt threshold and plateau model for individuals. Biometrics 29, 1–10.Google Scholar
de Greef, KH, Kemp, B & Verstegen, MWA (1992) Performance and body composition of fattening pigs of two strains during protein deficiency and subsequent realimentation. Livestock Prod Sci 30, 141–153.Google Scholar
de Greef, KH & Verstegen, MWA (1993) Partitioning of body protein and lipid deposition in the body of growing pigs. Livestock Prod Sci 35, 317–325.CrossRefGoogle Scholar
de Greef, KH & Verstegen, MWA (1995) Evaluation of a concept on energy partitioning in growing pigs.In Modelling Growth in the Pig, EAAP Publication, no. 78, 137–149 [Moughan, PJVerstegen, MWAVisser-Reyneveld, MI, editors]. Wageningen: Wageningen Press.Google Scholar
de Lange, CFM, Gillis, AM & Simpson, GJ (2001) Influence of threonine intake on whole-body protein deposition and threonine utilisation in growing pigs fed purified diets. J Anim Sci 79, 3087–3095.CrossRefGoogle ScholarPubMed
Dunkin, AC & Black, JL (1985) The relationship between energy intake and nitrogen balance in the growing pig.In Energy Metabolism of Farm Animals: Proceedings of the 10th Symposium, EAAP Publication, no. 32, 110–113 [Moe, PWTyrrell, HFReynolds, PJ, editors]. Totowa, NJ: Rowman & Littlefield.Google Scholar
Edwards, HM & Baker, DH (1999) Maintenance sulphur amino acid requirements of young chicks and efficiency of their use for accretion of whole-body sulphur amino acids and protein. Poult Sci 78, 1418–1423.CrossRefGoogle Scholar
Edwards, HM, Baker, DH, Fernandez, SR & Parsons, CM (1997) Maintenance threonine requirement and efficiency of its use for accretion of whole-body threonine and protein in young chicks. Br J Nutr 78, 111–119.Google Scholar
Edwards, HM, Fernandez, SR & Baker, DH (1999) Maintenance lysine requirement and efficiency of using lysine for accretion of whole-body lysine and protein in young chicks. Poult Sci 78, 1412–1417.Google Scholar
Emmans, GC & Kyriazakis, I (2000) Issues arising from genetic selection for growth and body composition characteristics in poultry and pigs.In The Challenge of Genetic Change in Animal Production. British Society of Animal Science Occasional Publicationno. 27, 39–53 [Hill, WGBishop, SCMcGuirk, BMcKay, JCSimm, GWebb, AJ, editors]. Edinburgh: British Society of Animal Science.Google Scholar
Ferguson, NS & Gous, RM (1997) The influence of heat production on voluntary food intake in growing pigs given protein-deficient diets. Anim Sci 64, 365–378.Google Scholar
Ferguson, NS, Gous, RM & Emmans, GC (1997) Predicting the effects of animal variation on growth and food intake in growing pigs using simulation modelling. Anim Sci 64, 513–522.CrossRefGoogle Scholar
Fisher, C, Morris, TR & Jennings, RC (1973) A model for the description and prediction of the response of laying hens to amino acid intake. Br Poult Sci 14, 469–484.CrossRefGoogle Scholar
Fuller, MF & Crofts, RMJ (1977) The protein-sparing effect of carbohydrate. 1. Nitrogen retention of growing pigs in relation to diet. Br J Nutr 38, 479–488.CrossRefGoogle ScholarPubMed
Fuller, MF, Franklin, MF, McWilliam, R & Pennie, K (1995) The responses of growing pigs, of different sex and genotype, to dietary energy and protein. Anim Sci 60, 291–298.Google Scholar
Fuller, MF & Garthwaite, P (1993) The form of response of body protein accretion to dietary amino acid supply. J Nutr 123, 957–963.Google Scholar
Green, DM & Whittemore, CT (2003) Architecture of a harmonized model of the growing pig for the determination of dietary net energy and protein requirements and of excretions into the environment (IMS Pig). Anim Sci 77, 113–130.Google Scholar
Heger, J, van Phung, T & Krizova, L (2002) Efficiency of amino acid utilisation in the growing pig at sub-optimal levels of intake: lysine, threonine, sulphur amino acids and tryptophan. J Anim Physiol Anim Nutr 86, 153–165.CrossRefGoogle Scholar
Heger, J, van Phung, T, Krizova, L, Sustala, M & Simecek, K (2003) Efficiency of amino acid utilisation in the growing pig at sub-optimal levels of intake: branched chain-chain amino acids, histidine and phenylalanine+tyrosine. J Anim Physiol Anim Nutr 87, 52–65.Google Scholar
Houdijk, JGM, Jessop, NS & Kyriazakis, I (2001) Nutrient partitioning between reproductive and immune functions in animals. Proc Nutr Soc 60, 515–525.CrossRefGoogle ScholarPubMed
Hudson, DJ (1966) Piece-wise linear regression analysis. J Am Stat Assoc 61, 1097CrossRefGoogle Scholar
Kemm, EH, Siebrits, FK & Barnes, P (1990) A note on the effect of dietary protein concentration, sex, type and live weight on whole body amino acid composition of growing pig. Anim Prod 51, 631–634.Google Scholar
Kyriazakis, I, Dotas, D & Emmans, GC (1994) The effect of breed on the relationship between feed composition and the efficiency of protein utilisation in pigs. Br J Nutr 71, 849–859.Google Scholar
Kyriazakis, I & Emmans, GC (1992a) The effects of varying protein and energy intakes on the growth and body composition of pigs. 1. The effects of energy intake at constant, high protein intake. Br J Nutr 68, 603–613.CrossRefGoogle ScholarPubMed
Kyriazakis, I & Emmans, GC (1992b) The effects of varying protein and energy intakes on the growth and body composition of pigs. 2. The effects of varying both energy and protein intake. Br J Nutr 68, 615–625.Google Scholar
Kyriazakis, I, Emmans, GC & with the technical assistance of Anderson DH (1995) Do breeds of pig differ in the efficiency with which they use a limiting protein supply?. Br J Nutr 74, 183–195.Google Scholar
Kyriazakis, I, Emmans, GC & McDaniel, R (1993) Whole body amino acid composition of the growing pig. J Sci Food Agric 62, 29–33.Google Scholar
Kyriazakis, I, Tolkamp, BJ & Hutchings, MR (1998) Towards a functional explanation for the occurrence of anorexia during parasitic infections. Anim Behav 56, 265–274.Google Scholar
Leibholz, J (1985) An evaluation of total and digestible lysine as a predictor of lysine availability in protein concentrates for young pigs. Br J Nutr 53, 615–624.CrossRefGoogle ScholarPubMed
Lochmiller, RL & Deerenberg, C (2000) Trade-offs in evolutionary immunology: just what is the cost of immunity?. Oikos 88, 87–98.Google Scholar
Mahan, DC, Shields, RG Jr (1998) Essential and non-essential amino acid composition of pigs from birth to 145 kilograms of body weight, and comparison to other studies. J Anim Sci 76, 513–521.CrossRefGoogle Scholar
Marquardt, DW (1963) An algorithm for least squares estimation of parameters. J Soc Ind Appl Math 11, 431–441.CrossRefGoogle Scholar
Mohn, S, de Lange, CFM (1998) The effect of body weight on the upper limit to protein deposition in a defined population of growing gilts. J Anim Sci 76, 124–133.Google Scholar
Mohn, S, Gillis, AM, Moughan, PJ, de Lange, CFM (2000) Influence of dietary lysine and energy intakes on body protein deposition and lysine utilisation in the growing pig. J Anim Sci 78, 1510–1519.CrossRefGoogle ScholarPubMed
Moughan, PJ (2003) Amino acid availability: aspects of chemical analysis and bioessay methodology. Nutr Res Rev 16, 127–141.CrossRefGoogle Scholar
Moughan, PJ & Smith, WC (1987) Whole body amino acid composition of the growing pig. N Z J Agric Res 30, 301–303.Google Scholar
National Research Council (1998) Nutrient Requirements of Swine 10th ed.Washington, DC: National Academy Press.Google Scholar
Pomar, C, Kyriazakis, I, Emmans, GC & Knap, PW (2003) Modeling stochasticity: dealing with population rather than individual pigs. J Anim Sci 81, E178–E186.Google Scholar
Powanda, MC & Beisel, WR (2003) Metabolic effects of infection on protein and energy status. J Nutr 133 322S – 327SCrossRefGoogle ScholarPubMed
Quiniou, N, Dourmad, J-Y & Noblet, J (1996) Effect of energy intake on the performance of different types of pig from 45–100 kg body weight. 1. Protein and lipid deposition. Anim Sci 63, 277–288.Google Scholar
Quiniou, N, Noblet, J, van Milgen, J, Dourmad, J-Y (1995) Effect of energy intake on performance, nutrient and tissue gain and protein and energy utilisation in growing boars. Anim Sci 61, 133–143.Google Scholar
Sandberg, FB, Emmans, GC & Kyriazakis, I (2005) Partitioning of limiting protein and energy in the growing pig: description of the problem, possible rules and their qualitative evaluation. Br J Nutr 93, 205–212.Google Scholar
Schinckel, AP, de Lange, CFM (1996) Characterisation of growth parameters needed as inputs for pig growth models. J Anim Sci 74, 2021–2036.Google Scholar
Siebrits, FK, Kemm, EH, Ras, MN & Barnes, PM (1986) Protein deposition in pigs as influenced by sex, type and live mass. 1. The pattern and composition of deposition. S Afr J Anim Sci 16, 23–27.Google Scholar
Susenbeth, A (1995) Factors affecting lysine utilisation in growing pigs: an analysis of literature data. Livestock Prod Sci 43, 193–204.Google Scholar
van Milgen, J & Noblet, J (1999) Energy partitioning in growing pigs: the use of a multivariate model as an alternative for the factorial analysis. J Anim Sci 77, 2154–2162.CrossRefGoogle ScholarPubMed
van Milgen, J & Noblet, J (2003) Partitioning of energy intake to heat, protein, and fat in growing pigs. J Anim Sci 81, E86–E93.Google Scholar
Velu, JG, Baker, DH & Scott, HM (1971) Protein and energy utilisation by chicks fed graded levels of a balanced mixture of crystalline amino acids. J Nutr 101, 1249–1256.Google Scholar
Wellock, IJ, Emmans, GC & Kyriazakis, I (2003a) Modelling the effects of thermal environment and dietary composition on pig performance: model logic and concepts. Anim Sci 77, 255–266.Google Scholar
Wellock, IJ, Emmans, GC & Kyriazakis, I (2003b) Predicting the consequences of social stressors on pig food intake and performance. J Anim Sci 81, 2995–3007.Google Scholar
Whittemore, CT (1995) Modelling the requirement of the young growing pig for dietary protein. Agric Syst 47, 415–425.Google Scholar
Whittemore, CT, Green, DM & Knap, PW (2001) Technical review of the energy and protein requirements of growing pigs: protein. Anim Sci 73, 363–373.Google Scholar
Wu, G, Ott, TL, Knabe, AD & Fuller, WB (1999) Amino acid composition of the fetal pig. J Nutr 129, 1031–1038.CrossRefGoogle ScholarPubMed