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Agricultural Studies, Vol. 2, Issue 1, Feb  2018, Pages 1-18; DOI: 10.31058/j.as.2018.21001 10.31058/j.as.2018.21001

Negative Effects of Heat Stress on Physiological and Immunity Responses of Farm Animals

Agricultural Studies, Vol. 2, Issue 1, Feb  2018, Pages 1-18.

DOI: 10.31058/j.as.2018.21001

Habeeb, A .A .M. *1 , A. A. El-Tarabany 1 , A. E. Gad 1 , M. A. Atta 1

1 Biological Applications Department, Radioisotopes Applications Division, Nuclear Research Center, Atomic Energy Authority, Cairo, Egypt

Received: 27 November 2017; Accepted: 20 December 2017; Published: 31 January 2018

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Abstract

Numerous physiologic changes occur in the digestive system, acid-base chemistry, and blood hormones during hot weather. Neurons that are temperature sensitive are located throughout the animal’s body and send information to the hypothalamus, which invokes numerous physiological, anatomical or behavioral changes in the attempt to maintain heat balance. In response of farm animals to heat stress, their activity, roughage intake and rumination decrease, while their water intake increase, evaporative loss through sweating, respiration, panting and rectal temperature increase in respective order. Regarding blood metabolites and biochemical changes, exposure to heat stress is accompanied by decline in concentrations of glucose, total protein, albumin, globulin, total lipids, cholesterol, red blood cells, hemoglobin and haematocrit. A decreasing in the level of blood hormones due to heat stress, especially, anabolic hormones such as growth hormone, insulin, triiodotyronine, thyroxin and aldosterone. However, the circulating blood cortisol, follicle stimulating hormone and estradiol showed conflicting results due to the duration of heat exposure, the intensity of environmental heat, species, breed and age of the farm animals.

Keywords

Heat Stress, Animal, Physiological Parameters, Immunity, Blood Components, Hormones

Copyright

© 2017 by the authors. Licensee International Technology and Science Publications (UK). This article is an open access article distributed under the terms and conditions of the Creative Commons Attribution (CC BY) License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.

References

[1] Marai, I.F.M. and Habeeb, A.A.M. Buffalos biological functions as affected by heat stress-A review. Journal of Livestock Science, (2010). 127, 89-109.
[2] Habeeb, A.A.M., I.F.M. Marai and T.H. Kamal. Heat stress. In: Phillips, C., Pigginns, D. (Eds.), Farm Animals and the Environment. CAB International, Wallingford, UK, (1992), pp:27-47.
[3] Pereira, A. M. F.; Flavio, B. Jr.; Evaldo, A.; Titto, L. and Afonso Almeida, J. A. Effect of thermal stress on physiological parameters, feed intake and plasma thyroid hormones concentration in Alentejana, Mertolenga, Frisian and Limousine cattle breeds. Int. J. Biometeorol., (2008) 52: 199 - 208.
[4] Habeeb A.A.M., K.A. El-Masry and M.A.A. Atta. Growth traits of purebred and crossbred bovine calves during winter and summer seasons. The 4th International Conference on Radiation Sciences and Applications, 13-17 October 2014, Taba, Egypt, PP:1-10.
[5] Atta, M.A.A., I.F.M. Marai, A.A.M. El-Darawany and K.A. El-Masry. Adaptability of bovine calves under subtropical environment. Zagazig J. Agric. Res., (2014) 41 No. (4):793-802.
[6] Al-Haidary, A. Physiological responses of Naimey Sheep to heat stress challenge under semi-arid environments. International Journal of Agriculture and Biology, (2004). 2, 307-309.
[7] West.W. Effects of Heat-Stress on Production in Dairy Cattle. Journal of Dairy Science, (2003) 86, Issue 6: 2131-2144.
[8] Beatty, D.T., Barnes, A., Taylor , E. , Pethick, D. , McCarthy, M. and Maloney, S.K. Physiological responses of Bos taurus and Bos indicus cattle to prolonged continuous heat and humidity. Journal of Animal Science, (2006) 84, 972-985.
[9] Brien, M. D.O., Rhoads, R. P., Sanders, S.R., Duff, G.C. and Baumgard, L. H. Metabolic adaptation to heat stress in growing cattle. Journal of Domestic Animal Endocrinology (2010). 38, 68-94.
[10] Saxena, S.K. and Singh, K. Water turnover, rates in Hariana cattle and their crosses at different temperatures. Journal of Animal Science. (1983) 53, 944-952.
[11] John, T. and Tyson, P. E. Calves and heat stress. Extension Educator, Agricultural Engineering, Miffin County, College of Agricultural Sciences, (2012), US.
[12] El-Koja, M.N., Belyea, R.L., Johnson, H.D. and Marts, F.A. Effect of environmental temperature and deity fibre level upon intake, milk production and nutrient utilization of lactating dairy cows. American Journal of Dairy Science, (1980) 5, 63-85.
[13] Habeeb, A.A.M. ; K.M. EL-Masry; A.I. Aboulnaga and T.H. Kamal. The effect of hot summer climate and level of milk yield on blood biochemistry and circulating thyroid and progesterone hormones in Friesian cows. Arab Journal of Nuclear Sciences and Applications (1996) 29: 161-173.
[14] Bernabucci, U., P. Bani, B. Ronchi, N. Lacetera and A. Nardone. Influence of short and long term exposure to a hot environment on Rumen Passage rate and diet digestibility by Friesian heifers. J. Dairy Sci., (1999), 82: 967-973.
[15] Shwartz, G., Rhoads, M.L., Van Baale, M.J., Rhoads, P.P. and Baumgard, L.H. Effects of a supplemental yeast culture on heat-stressed lactating Holstein cows. Journal of Dairy Science, (2009), 92 (3), 935-942.
[16] Brien, M. D.O., Rhoads, R. P., Sanders, S.R., Duff, G.C. and Baumgard, L. H. Metabolic adaptation to heat stress in growing cattle. Journal of Domestic Animal Endocrinology, (2010), 38, 68-94.
[17] Bernabucci, U., N. Lacetera, L.H. Baumgard, R.P. Rhoads, B. Ronchi and A. Nardone. Metabolic and hormonal acclimation to heat stress in domesticated ruminants. Animal, (2010), 4 (7): 1167-1183.
[18] Farooq, U., Samad, H.A., Shehzad, F. and Qayyun, A. Physiological responses of cattle to heart stress. World Applied Sciences Journal, 8(Special Issue of Biotechnology and Genetic Engineering), (2010) pp: 38-43.
[19] Monty, D.E., Kelly, L.M. and Rice, W. R. Acclimatization of St. Croix, Karakul and Rambouillet sheep to intense and dry summer. Journal of Small Ruminant Research, (1991), 4 (4): 397-392.
[20] Padua, J.T., Darilva, R.G., Bottcher, R.W. and Hoff, S.J. Effect of high environmental temperature on weight gain and feed intake of Suffolk lambs reared in tropical environment. Proceedings of 5th International Symposium, Bloomington, USA, (1997), pp: 898-815.
[21] Marai, I.F.M., El-Darawany, A.A., Fadiel, A. and Abdel-Hafez, M.A.M. Physiological traits as affected by heat stress in sheep–A review. Journal of Small Ruminant Research, (2007), 71, 1-12.
[22] Nardone, A., Ronchi, B., Lacetera, N., Ranieri, M.S. and Bernabucci, U. Effect of climate changes on animal production and sustainability of livestock systems. Journal of Livestock Science, (2010), 130, 57-69.
[23] Kadzere, C.T., M.R. Murphy, N. Silanikove and E. Maltz. Heat stress in lactating dairy cows: A review. Livest, Prod. Sci., (2002), 77 : 59-91.
[24] Habeeb, A.A.M., A.I. Aboulnaga, K.A. El-Masry and S.F. Osman. Changes in blood biochemical and hormonal levels during pregnancy stages in native purebred and crossbred cattle reared in desert of Inshas area. Egyptian J. Applied Sci., (2002), 17(10):463-581.
[25] Habeeb, A. A. M.; El-Masry, K. A.; Fatma, E. I. T. and Gad, A. The role of cyclic guanosine monophosphate and heat shock proteins in heat stressed cattle. Egypt. J. Appl. Sci., (2009), 24: 32 - 56.
[26] Habeeb, A. A. M; A. E. Gad and A. A. El-Tarabany. Effect of two climatic conditions and types of feeding on body weight gain and some physiological and biochemical parameters in crossing calves. Zagazig Veterinary J., (2011), 39 (3): 34-48.
[27] Habeeb, A. A. M; A. E. Gad and A. A. El-Tarabany. Effect of hot climatic conditions with different types of housing on productive efficiency and physiological changes in buffalo calves. Isotope and Radiation Research, (2012), 44(1):109-126.
[28] Roth, Z.; Meidan, R.; Braw-Tal, R. and Wolfenson, D. Immediate and delayed effects of heat stress on follicular development and its association with plasma FSH and inhibin concentration in cows. J. Reprod. Fertil., (2000), 120: 83 - 90.
[29] Roth, Z.; Meidan, R.; Shaham-Albalancy, A.; Braw-Tal, R. and Wolfenson, D. Delayed effect of heat stress on steroid production in medium-sized and Pr:eovulatory bovine follicles. Reproduction, (2001), 121: 745 - 751.
[30] Silanikove, N. Effect of heat stress on the welfare of extensively managed domestic ruminants. J. Livestock Prod. Sci., (2000), 67: 1-18.
[31] Carlson, J. R. Growth regulation. In : Animal Growth and Nutrition, edited by E.S.E. Hafez and I.A. Dyer, (1969). pp.138-155. Lea and Febiger, Philadelphia , USA.
[32] Marai, I.F.M. and A.A.M. Habeeb. Adaptability of Bos Taurus cattle under hot arid conditions. J. Arid zone, (1998), 37 (3): 253-281.
[33] Menegatos, J., Goulas, C. and Kalogiannis, D. The productivity, ovarian and thyroid activity of ewes in an accelerated lambing system in Greece. Journal of Small Ruminant Research, (2006), 65, 209-216.
[34] Khattab, M.S. Preparation of silage from vegetable and fruits market wastes treated with some additives and its effect on productive performance of lactating animals. M. Sc. Thesis, Faculty of Agriculture, Ain–Shams University, Cairo, Egypt (2008)..
[35] Habeeb, A.A.M., Ibrahim, M.Kh. and Yousf, H.M. Blood and milk contents of triiodolhyronine (T3) and cortisol in lactating buffaloes and changes in milk yield and composition as a function of lactation number and ambient temperature. Arab Journal of Nuclear Sciences and Applications, (2000), 33 (2), 313-322.
[36] Habeeb, A.A.M., I.F.M. Marai, T.H. Kamal and J.B. Owen. Genetic improvement of livestock for heat adaptation in hot climates.Intern. Confer. On Animal Poult., Rabbits and Fish Production and Health, Al-Aresh, Egypt, (1997), pp:11-16.
[37] Kamal, T.H. and A.A.M. Habeeb. The effect of sex difference in Friesian calves on heat tolerance using the heat-induced changes in total body water, total body solids and some blood components. Egypt, J. Applied Sci. (1999), 14: 1-15.
[38] El-Masry, K.A. and Habeeb, A.A.M. Thyroid functions in lactating Friesian cows and water buffaloes under winter and summer Egyptian conditions. Proceedings of 3rd Poultry Production. Alexandria, Egypt. (1989), 2, 613-620.
[39] Horowitz, M. Heat acclimation: Phenotypic plasticity and cues to the underlying molecular mechanisms. Journal of Thermal Biology, (2001), 26, 357-363.
[40] Habeeb, A.A.M., A.I. Aboulnaga and T.H. Kamal. Heat-induced changes in body water concentration, T3, cortisol, glucose and cholesterol levels and their relationships with thermoneutral body weight gain in Friesian calves. 2nd International .Conf., on Anim. Prod. and Health in semi-aried area-Fac. Environ. Agric. Sci., Suez Canal Univ., El-Arish, North Sinai, Egypt, (2001), pp: 97-108.
[41] Gad, A. E. Effect of olive pulp levels in the diet of buffalo calves on physiological body functions and productive traits under heat stress conditions. Isotope and radiation research, (2013), 45 (1):61-77.
[42] Beede, D.K. and R.J. Collier. Potential nutritional strategies for intensively managed cattle during heat stress. J. Animal Sci., (1986), 62: 543-550.
[43] Christopherson, R.J., J.R. Thompson, V.A. Hammond and G.A. Hills. Effect of thyroid on plasma adrenaline and nor-adrenaline concentrations in sheep during acute and chronic cold exposure. Candian J. Pharmacol., (1978), 59:490-494.
[44] Abdalla, E. B., Johnson, H.D. and Kotby, E. A. Hormonal adjustments during heat exposure in pregnant and lactating ewes. Journal of Dairy Science, (1991),. 74, 145 (Abstract).
[45] Christison, G.I. and Johnson, H.D. Cortisol turnover in heat-stressed cows. Journal of Animal Science, (1972), 53,1005-1010.
[46] Sharpe, P.M., Haynes, N.B. and Buttery, P.J. Glucocorticoid status and growth. In: Control and Manipulation of Growth, edited by P.J. Buttery, N.B. Haynes and D.B. Lindsay. Butterworths (London), (1986), pp: 207-222.
[47] Moberg, G. P. Influence of adrenal axis upon the gonads. Oxford Journal of Review Reproduction Biology, (1987), 9, 456-496.
[48] Leining, D.B., Tucker, H. A. and Kesmer, J.S. Growth hormone, glucocorticoids and thyroxine response to duration, intensity and wave length of light in pre-pubertal bulls. Journal of Animal Science, (1980), 51, 932-942.
[49] Yousef, H. M.; Habeeb, A. A. M. and El-Kousey, H. Body weight gain and some physiological changes in Friesian calves protected with wood or reinforced concrete sheds during hot summer season of Egypt. Egypt. J. Anim. Prod., (1997), 34: 343 - 359.
[50] Kamal, T.H. and Johnson, H. D. Total body solids as measure of a short-term heat stress in cattle. Journal of Animal Science, (1971), 32, 306-311.
[51] Ronchi, B., Stradail, G., Verini Supplizi, A., Bernabucci, U., Lacetera, N., Accorsi, P.A., Nardone, A. and Seren, E. Influence of heat stress or feed restriction on plasma progesterone, oestradiol-17β, LH, FSH, prolaction and cortisol in Holestein Heifers. Journal of Livestock Production Science, (2001), 68, 231-241.
[52] Collier. R. J.; Beede, D. K.; Thatcher, W. W.; Israel, L. A. and Wilcox, C. J. Influence of environment and its modification on dairy animal health and production. J. Dairy Sci., (1982), 65: 2213
[53] Burton, J.L. Stress, Immunity and Mammary Health. Presentation at California Animal Nutrition Conference, Pre-Conference Technical Symposium; (2007), Fresno, CA.
[54] Shaffer, L., Roussel, J.D. and Koone, K.L. Effects of age, temperature, season and breed on blood characteristics of dairy cattle. Journal of Dairy Science, (1981), 64 (1), 63-68.
[55] Webster, A.J.F. The influence of the climatic environment on metabolism in cattle. In: Principles of Cattle Production, edited by H. Swan and W.H. Broster, Butterworths, (1976), London.
[56] El-Masry, K.A.;M.Z. Nessim and Gad, A.E. Determination of heat tolerance coefficient in crossbred and baladi pregnant cows under Egyptian environmental conditions. J. Rad. Res. and appl. Sci., (2010), 3 (4B): 1399 -1409.
[57] Erasmus, L.J., Botha, P.M. and Kistner, A. Effect of yeast culture supplement on production, rumen fermentation and duodenal nitrogen flow in dairy cows. Journal of Dairy Science, (1992), 75, 3056-3065.
[58] Kamiya, M., Kamiya,Y., Tanaka, M., Oki, T., Nishiba, Y. and Shioya, S. Effect of high ambient temperature and restricted feed intake on urinary and plasma 3-methyl- histidine in lactating Holstein cows. Animal Science Journal, (2006), 77, 201-207.
[59] Momtmurro, N., Pacelli, C. and Borghese, A. Metabolic profiles in buffalo heifers bred in two farms with different feeding and climatic conditions. Egyptian Journal of Animal Production, (1995), 32, 1-12.
[60] St-Pierre, N.R., B. Cobanov, and G. Schnitkey. Economic losses from heat stress by US livestock industries. J. Dairy Sci. (2003), 86 (E Suppl.):E52–E77.
[61] Wheelock, J.B., Rhoads, R.P., Van Baale, M.J., Sanders, S.R. and Baumgard, L.H. Effects of heat stress on energetic metabolism in lactating Holstein cows. Journal of Dairy Science, (2010), 93 (2), 644-655.
[62] Burton, J.L. and R. J. Erskine. Immunity and mastitis: Some new ideas for an old disease. Vet Clin Food Anim (2003),19:1–45.
[63] Weber, P., T. Toelboell, L. Chang, J. Tirrell, P.M. Saama, G.W. Smith, and J.L. Burton. Mechanisms of glucocorticoid-induced down-regulation of neutrophil L-selectin in cattle: evidence for effects at the gene-expression level and primarily on blood neutrophils. Journal of Leukocyte Biology, (2004), 75:815-827.
[64] Heasman, S.J., K.M. Giles, C. Ward, A.G. Rossi, C. Haslett and I. Dransfield. Glucocorticoid-mediated regulation of granulocyte apoptosis and macrophage phagocytosis of apoptotic cells: implications for the resolution of inflammation. Journal of Endocrinology(2003), 178, 29–36.
[65] Do Amaral, B.C. , E.E. Connor, S. Tao , M.J. Hayen, J.W. Bubolz, and G.E. Dahl. Heat stress abatement during the dry period influences metabolic gene expression and improves immune status in the transition period of dairy cows. J. Dairy Sci. (2011), 94:86–96.
[66] O’Connor, D.L. Dairy Technology Manager, Prince Agri Products, Inc. Healthy herd management report (2012), www.princeagri.com.
[67] Collier, R.J., J.L. Collier, R.P. Rhoads, and L.H. Baumgard. Invited Review: Genes Involved in the Bovine Heat Stress Response. J. Dairy Sci. (2008), 91:445–454.
[68] Campisi, J., T.H. Leem, and M. Fleshner. Stress-induced extracellular Hsp-72 is a functionally significant danger signal to the immune system. Cell Stress Chaperones (2003), 8:272–286.
[69] Wegele H.; L. Muller and J. Buchner. Hsp70 and Hsp90 a relay team for protein folding. Rev Physiol. Biochem. Pharmacol. (2004), 151:1-44
[70] McGinley Susan. Heat Shock Proteins, Developing a tool to fight human and animal disease. Agricultural Experiment Station Research Report. National Center for Biotechnology Information. The University of Arizona, College of Agriculture and Life Sciences, (2005), pp:20-21.
[71] Habeeb, A. A. M.; Fatma, E. I. T. and Osman, S. F. Detection of heat adaptability using heat shock proteins and some hormones in Egyptian Buffalo calves Egypt. J. Appl. Sci., (2007), 22: 28 - 53.

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