Handmade fish meal as a partial replacement of soybean meal in diets for feedlot lambs: Effects on growth performance, dietary energy and meat quality

Authors

  • J L LOYA-OLGUÍN Autonomous University of Sinaloa, Culiacan 80260, Mexico
  • Y S VALDÉS-GARCÍA Veterinary Science Research Institute, Autonomous University of Baja California, Mexicali 21100, Baja California, Mexico
  • V M GONZÁLEZ-VIZCARRA Veterinary Science Research Institute, Autonomous University of Baja California, Mexicali 21100, Baja California, Mexico
  • H DÁVILA-RAMOS 2Veterinary Science Research Institute, Autonomous University of Baja California, Mexicali 21100, Baja California, Mexico
  • J D URÍAS-ESTRADA 2Veterinary Science Research Institute, Autonomous University of Baja California, Mexicali 21100, Baja California, Mexico
  • A J HERNÁNDEZ-CERÓN Autonomous University of Sinaloa, Culiacan 80260, Mexico
  • J G RODRÍGUEZ-CARPENA Autonomous University of Sinaloa, Culiacan 80260, Mexico
  • F GRAGEOLA-NÚÑEZ Autonomous University of Sinaloa, Culiacan 80260, Mexico
  • A PLASCENCIA Faculty of Veterinary Medicine and Zootechnics, Autonomous University of Sinaloa, Culiacan 80260, Mexico

DOI:

https://doi.org/10.56093/ijans.v94i2.136051

Keywords:

Byproducts, Dietary energy, Feedlot lambs, Handmade fishmeal, Meat quality

Abstract

With the aim to evaluate a handmade fishmeal (HFM) as a partial replacement of soybean meal (SBM) in finishing diets, 36 intact male Dorper × Pelibuey lambs (41.43±7.38 kg of initial weight) were used in a completely randomized block design to test the following treatments: 1) Cracked corn-based diet containing 12% SBM, 2) inclusion of 3.5% of HFM partially replacing SBM, and 3) inclusion of 7% of HFM partially replacing SBM. Urea and limestone were utilized to balance diets in CP and calcium content. The feeding trial lasted 30 days. Replacement of SBM with HFM did not modify the effects on average daily gain (ADG) and dry matter intake (DMI), but there were numerical differences in ADG; HFM inclusion linearly improved gain-to-feed ratio; dietary net energy (NE) and observed-to-expected diet NE. Hot carcass weight and dressing percentage were not affected by HFM. Except a linear increase on C22:6, the effect of SBM replacement on fatty acid profile in meat was not significant. The meat pH registered at 24 h post-mortem linearly increased with HFM inclusion, but meat colour and sensorial values were unaffected. It was concluded that inclusion of up to 7% of HFM in diet as partial replacement of soybean meal did not negatively affect DMI and ADG, but can increase feed efficiency and dietary energy utilization. The effects of HFM on carcass and meat quality were inappreciable. Due to variations in handmade processing, it is important to verify its chemical composition before HFM can be incorporated into diets.

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References

AOAC. 2000. Official Methods of Analysis. 17th edn. Association of Official Analytical Chemists. Gaithersburg, MD, USA.

Atti N, Mahouachi M and Rouissi H. 2007. Effects of fish meal in lamb diets on growth performance, carcass characteristics and subcutaneous fatty acid composition. Options Méditerranéenes, Series A. 74: 57–61.

Berthelot V and Gruffat D. 2018. Fatty Acid Composition of Muscles. INRA Feeding System for Ruminants, Wageningen Academic Publishers. 640 pp.

Camacho A, Torres A, Capote J, Mata J, Viera J, Bermejo L A and Argüello A. 2016. Meat quality of lambs (hair and wool) slaughtered at different live weights. Journal of Applied Animal Research 45: 400–08.

Can A, Denek N and Yazgan K. 2005. Effect of replacing urea with fish meal in finishing diet on performance of Awassi lamb under heat stress. Small Ruminant Research 59: 1–5.

Cannas A, Tedeschi L O, Fox D G, Pell A N and Van Soest P J. 2004. A mechanistic model for predicting the nutrient requirements and feed biological values for sheep. Journal of Animal Science 82: 149–69.

Castro-Pérez B I, Núñez-Benítez V H, Estrada-Angulo A, Urías- Estrada J D, Gaxiola-Camacho S M, Rodríguez-Gaxiola M A, Angulo-Montoya C, Barreras A, Zinn R A, Perea-Domínguez X P and Plascencia A. 2022. Evaluation of standardized mixture of synbiotic-glyconutrients supplemented in lambs finished during summer season in tropical environment: Growth performance, dietary energetics, and carcass characteristics. Canadian Journal Animal Science 102:155– 64.

Cho J H and Kim I H. 2011.Fish meal – nutritive value. Journal of Animal Physiology and Animal Nutrition 95: 685–92.

Comerford J W, House R B, Harpster H W, Henning W R and Cooper J B. 1992. Effects of forage and protein source on feedlot performance and carcass traits of Holstein and crossbred beef steers. Journal of Animal Science 70: 1022–31.

Costa J B, Oliveira R L, Silva T M, Barbosa A M, Borja M S, de Pellegrini C B, Oliveira V S, Ribeiro R D X and Bezerra L R. 2018. Fatty acid, physicochemical composition and sensory attributes of meat from lambs fed diets containing licuri cake. PLoS ONE 13: e0206863.

Dervishi E, González-Calvo L, Blanco M, Joy M, Sarto P, Martín-Hernández R, Ordovás J M, Serrano M and Calvo J H. 2019. Gene expression and fatty acid profiling in longissimus thoracis muscle, subcutaneous fat, and liver of light lambs in response to concentrate or alfalfa grazing. Frontiers in Genetics 10: 1070.

Dewi R R, Kustantinah A and Muhlisin M. 2021. Review: The effect of protected lemuru fish oil in total mixed ration of thin-tailed sheep. IOP Conf. Series: Earth and Environmental Science 662: 012027.

Estrada-Angulo A, Castro-Pérez B I, Urías-Estrada J D, Ríos-Rincón F G, Arteaga-Wences Y J, Barreras A, López-Soto M A, Plascencia A and Zinn R A. 2018. Influence of protein level on growth performance, dietary energetics and carcass characteristics of Pelibuey × Katahdin lambs finished with isocaloric diets. Small Ruminant Research 160: 59–64.

Estrada-León R J, Moo-Huchin V M, Mena-Arceo D, Cardénas J V, Ortíz-Fernandez A and Canto-Pinto J C. 2022. Meat quality physicochemical traits in hair sheep in southeast Mexico. Journal MVZ Córdoba 27: e2563.

European Commission. 2019. Ocean and Fisheries. Discarding in fisheries. Available online: https://oceans-and-fisheries.ec.europa.eu/fisheries/rules/discarding-fisheries_en. (accessed on April 4 2023).

Gümüş E and Erdogan F. 2010. Effects of partial substitution of fish meal with tuna liver meal on the fatty acid profile of nile tilapia fry, Oreochromis niloticus. Kafkas Univ Vet Fak Derg 16(Suppl-B): S283–S290.

Hilmarsdottir G S, Ogmundarson O, Arason S, and Gudjónsdóttir M. 2020. The effects of varying heat treatments on lipid composition during pelagic fishmeal production. Processes 8: 1142.

Honikel K O. 1998. Reference methods for the assessment of physical characteristics of meat. Meat Science 49: 447–57.

Hussein H S and Jordan R M. 1991. Fish meal as a protein supplement in finishing lamb diets. Journal of Animal Science 69: 2115–22.

Huynh D M and Kitts D D. 2009. Evaluating nutritional quality of pacific fish species from fatty acid signatures. Food Chemistry 114: 912–18.

Jiang T, Busboom J R, Nelson M L and Mengarelli R. 2011. Omega-3 fatty acids affected human perception of ground beef negatively. Meat Science 89: 390–99.

Kitessa S M, Gulati S K, Ashes J R, Scott T W and Fleck E. 2001. Effect of feeding tuna oil supplement protected against hydrogenation in the rumen on growth and n-3 fatty acid content of lamb fat and muscle. Australian Journal of Agriculture Research 52: 433–37.

Lehmkuhler J W and Kerley M S. 2007. Blood meal and fish meal as supplements to increase the amino acid to energy ratio in steer receiving diets. The Professional Animal Scientist 23: 253–59.

Luo Y, Wang B, Liu Ch, Su R, Hou Y, Yao D, Zhao L, Su L and Jin Y. 2019. Meat quality, fatty acids, volatile compounds, and antioxidant properties of lambs fed pasture versus mixed diet. Food Science and Nutrition 7: 2796–2805.

Ma Z, Hassan M M, Allais L, He T, Leterme S, Ellis A, McGraw B and Qin J G. 2019. Comparison of partial replacement of fishmeal with soybean meal and EnzoMeal on growth performance of Asian seabass Lates calcarifer. Comparative Biochemistry and Physiology Part C 216: 29–37.

NRC. 2007. Nutrient Requirement of Small Ruminant. Sheep, Goats, Cervids, and New World Camelids. National Academy Press, Washington, DC, USA.

NOM. 1995. Normas Oficiales Mexicanas. Diario Oficial de la Federación. (NOM-051-ZOO-1995, NOM-033-ZOO-1995)

Trato Humanitario de Animales de Producción, de Compañía y Animales Silvestres Durante el Proceso de Crianza, Desarrollo de Experimentos, Movilización y Sacrificio. Available online: http://dof.gob.mx/ (accessed on 17 August 2022).

Pérez M L and Ponce E. 2013. Meat Technology Laboratory Practice Handbook. CBS Publications. Universidad Autónoma Metropolitana, Cd. de México, México.

Petricorena Z C. 2014. Chemical Composition of Fish and Fishery Products. (Ed.) Cheung P. Handbook of Food Chemistry. Springer, Berlin, Heidelberg.

Pewan S B, Otto J R, Kinobe R T, Adegboye O A and Malau-Aduli A E O. 2022. Fortification of diets with omega-3 long-chain polyunsaturated fatty acids enhances feedlot performance, intramuscular fat content, fat melting point, and carcass characteristics of Tattykeel Australian White MARGRA lambs. Frontiers in Veterinary Sciences 9: 933038.

Pond W G. 1984. Response of growing lambs to clinoptilolite or zeolite NaA added to corn, corn-fish meal and corn-soybean meal diets. Journal of Animal Science 59: 1320–28.

SAS. 2004. Statistical Analysis System. SAS/STAT User’s Guide: Version 9.1. SAS Institute Inc., Cary, North Carolina.

Tan P V and Bryant M J. 1991.The effects of dietary supplements of fish meal on the voluntary food intake of store lambs. Animal Production 52: 271–78.

Tomlinson D L, James R E, Bethard G L and McGilliard M L. 1997. Influence of undegradability of protein in the diet on intake, daily gain, feed efficiency, and body composition of Holstein heifers. Journal Dairy Science 80: 943–48.

Valdés-García Y S, Núñez-González L E, Escalera-Valente F, Plascencia-Jorquera A, Barreras-Serrano A, Corona-Gochi L, Gómez-Danés A A and Loya-Olguín J L. 2016. Effect of replacement of soybean meal with handmade fishmeal on productive performance of lactating Pelibuey ewes and their suckling kids. Archivos de Medicina Veterinaria 48:169–76.

Vanden Heuvel J P. 2012. Nutrigenomics and Nutrigenetics of ω3 Polyunsaturated Fatty Acids. (Eds) Bouchard C and Ordovas J

M. Progress in Molecular Biology and Translational Science. Academic Press, Amsterdam, The Netherlands.

Van Soest P J, Robertson J B and Lewis B A. 1991. Methods for dietary fiber, neutral detergent fiber, and nonstarch polysaccharides in relation to animal nutrition. Journal of Animal Science 24: 834–43.

Webb E C and O´Neill H A. 2008. The animal fat paradox and meat quality. Meat Science 80: 28–36.

Walz L S, White T W, Fernandez J M, Gentry L R, Blouin D C, Froetschel M A, Brown T F, Lupton C J and Chapa A M. 1998. Effects of fish meal and sodium bentonite on daily gain, wool growth, carcass characteristics, and ruminal and blood characteristics of lambs fed concentrate diets. Journal of Animal Science 76: 2025–31.

Zinn R A and Shen Y. 1998. An evaluation of ruminally degradable intake protein and metabolizable amino acid requirements of feedlot calves. Journal of Animal Science 76: 1280–89.

Zinn R A and Owens F N. 1993. Ruminal escape protein for lightweight feedlot calves. Journal of Animal Science 71: 1677–87.

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Published

2024-02-12

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How to Cite

LOYA-OLGUÍN, J. L. ., VALDÉS-GARCÍA, Y. S. ., GONZÁLEZ-VIZCARRA, V. M. ., DÁVILA-RAMOS, H. ., URÍAS-ESTRADA, J. D. ., HERNÁNDEZ-CERÓN, A. J. ., RODRÍGUEZ-CARPENA, J. G. ., GRAGEOLA-NÚÑEZ, F. ., & PLASCENCIA, A. . (2024). Handmade fish meal as a partial replacement of soybean meal in diets for feedlot lambs: Effects on growth performance, dietary energy and meat quality. The Indian Journal of Animal Sciences, 94(2), 166–172. https://doi.org/10.56093/ijans.v94i2.136051