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Dietary chromium supplementation for heat-stressed broilers

Published online by Cambridge University Press:  20 December 2017

F.S. DALÓLIO*
Affiliation:
Dept. Agricultural Engineering, Federal University of Viçosa, UFV, Brazil
L.F.T. ALBINO
Affiliation:
Dept. Animal Science, Federal University of Viçosa, UFV, Brazil
J.N. SILVA
Affiliation:
Dept. Agricultural Engineering, Federal University of Viçosa, UFV, Brazil
P.H.R.F. CAMPOS
Affiliation:
Dept. Animal Science, Federal University of Jequitinhonha and Mucuri Valleys, UFVJM, Brazil
H.J.D. LIMA
Affiliation:
Dept. Animal Science, Federal University of Mato Grosso, UFMT, Brazil
J. MOREIRA
Affiliation:
Dept. Animal Science, Federal University of Jequitinhonha and Mucuri Valleys, UFVJM, Brazil
V. RIBEIRO JUNIOR
Affiliation:
Dept. Animal Science, Federal University of Sergipe, UFS, Brazil
*
Corresponding author: felipesantos181@hotmail.com
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Abstract

Studies have shown that dietary chromium (Cr) supplementation beneficially affects physiological functions such as cell preservation, antioxidant activity and immune response that are of utmost importance to animal homeostasis and thermoregulatory capacity under heat stress conditions. For instance, Cr is essential for the synthesis of the specific low molecular weight Cr-binding-substance (LMWCr) that upon conversion to chromodulin, activates the insulin signalling cascade. This results in greater cell permeability to insulin, with a subsequent positive effect on the metabolism of carbohydrates, lipids and proteins. Furthermore, Cr has antioxidant properties which help to attenuate the negative effects of oxidative stress. With regards to meat quality, Cr decreases lipid peroxidation. It has been suggested that Cr supplementation increases antibody responses and lymphocyte counts in broiler chickens exposed to high environmental temperatures. In addition, trivalent Cr supplementation increases growth performance and decreases the circulating levels of undesirable metabolites and hormones such as cholesterol and corticosterone in broiler chickens exposed to heat stress. The aim of this review was to report the effects of Cr supplementation as a nutritional strategy to increase growth performance, immune response, carcass characteristics and meat quality of broilers produced under hot conditions. This knowledge may contribute to improve the productivity and sustainability of broiler production in a context of global warming and development of livestock production in hot climate areas.

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Reviews
Copyright
Copyright © World's Poultry Science Association 2018 

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References

ALTAN, Ö., PABUÇCUOGLU, A., ALTAN, A., KONYALIOGLU, S. and BAYRAKTAR, H. (2003) Effect of heat stress on oxidative stress, lipid peroxidation and some stress parameters in broilers. British Poultry Science 44: 545-550.Google Scholar
ANANDHI, M., MATHIVANAN, R., VISWANATHAN, K. and MOHAN, B. (2006) Dietary inclusion of organic chromium on production and carcass characteristics of broilers. International Journal Poultry Science 5: 880-884.Google Scholar
ANDERSON, R.A., BRYDEN, N.A. and POLANSKY, M.M. (1992) Dietary chromium intake. Freely chosen diets, institutional diets, and individual foods. Biological Trace Element Research 32: 117-121.Google Scholar
AKDEMIR, F., SAHIN, N., ORHAN, C., TUZCU, M., SAHIN, K. and HAYIRLI, A. (2015) Chromium-histidinate ameliorates productivity in heat-stressed Japanese quails through reducing oxidative stress and inhibiting heat-shock protein expression. British Poultry Science 56: 247-254.Google Scholar
BAHRAMI, A., MOEINI, M.M., GHAZI, S.H. and TARGHIBI, M.R. (2012) The effect of different levels of organic and inorganic chromium supplementation on immune function of broiler chicken under heat-stress conditions. Journal Applied Poultry Research 21: 209-215.Google Scholar
BHAGAT, J., AHMED, K.A., TYAGI, P., SAXENA, M. and SAXENA, V.K. (2008) Effects of supplemental chromium on interferon-gamma (IFN-gamma) mRNA expression in response to Newcastle disease vaccine in broiler chicken. Research Veterinary Science 85: 46-51.Google Scholar
BORGES, S.A., MAIORKA, A. and SILVA, A.V.F. (2003) Heat stress physiology and electrolytes for broilers. Ciência Rural 33: 975-981.CrossRefGoogle Scholar
BORGUET, F., CORNELIS, R. and LAMEIRE, N. (1990) Speciation of chromium in plasma and liver tissue of endstage renal failure patients on continuous ambulatory peritoneal dialysis. Biological Trace Element Research 26-27: 449-460.CrossRefGoogle ScholarPubMed
BROOKS, M.A., GRIMES, J.L., LLOYD, K.E., KRAFKA, K., LAMPTEY, A. and SPEARS, J.W. (2016) Chromium propionate in broilers: effect on insulin sensitivity. Poultry Science 95: 1096-1104.CrossRefGoogle ScholarPubMed
BROSSI, C., CONTRERAS-CASTILLO, C.J., AMAZONAS, E.A. and MENTEN, J.F.M. (2009) Estresse térmico durante o pré-abate em frangos de corte. Ciência Rural 39: 1284-1293.CrossRefGoogle Scholar
BRUNO, L.D.G., MAIORKA, A., MACARI, M., FURLAN, R.L. and GIVISIEZ, P.E.N. (2011) Water intake behaviour of broiler chickens exposed to heat stress and drinking from bell or nipple drinkers. Brazilian Journal Poultry Science 13: 147-152.Google Scholar
CALEFI, A.S., QUINTEIRO-FILHO, W.M., FERREIRA, A.G.P. and PALERMO-NETO, J. (2017) Neuroimmunomodulation and heat stress in poultry. World's Poultry Science Journal 73: 493-504.Google Scholar
CAO, J., LI, K., LU, X. and ZHAO, Y. (2004) Effects of florfenicol and chromium (III) on humoral immune response in chicks. Asian-Australian Journal Animal Science 17: 366-370.Google Scholar
CHEN, N.S.C., TSAI, A. and DUER, I.A. (1973) Effects of chelating agents on chromium absorption in rats. Journal Nutrition 103: 1182-1186.Google Scholar
CUPO, M.A. and DONALDSON, W.E. (1987) Chromium and vanadium effects on glucose metabolism and lipid synthesis in the click. Poultry Science 66: 120-126.Google Scholar
DAVIS, C.M., SUMRALL, K.H. and VINCENT, J.B. (1996) The biologically active form of chromium may activate a membrane phosphotyrosine phosphatase (PTP). Biochemistry 35: 12963-12969.Google Scholar
DAVIS, C.M. and VINCENT, J.B. (1997a) Isolation and characterisation of a biologically active form of chromium oligopeptide from bovine liver. Archives Biochemistry Biophysics 339: 335-343.CrossRefGoogle ScholarPubMed
DAVIS, C.M. and VINCENT, J.B. (1997b) Chromium oligopeptide activates insulin receptor tyrosine kinase activity. Biochemistry 36: 4382-4385.CrossRefGoogle ScholarPubMed
DEBSKI, B., ZALEWSKI, W., GRALAK, M.A. and KOSLA, T. (2004) Chromium-yeast supplementation of chicken broilers in an industrial farming system. Journal Trace Elements Medicine Biology 18: 47-51.Google Scholar
EBRAHIMZADEH, S.K., FARHOOMAND, P. and NOORI, K. (2012) Immune response of broiler chickens fed diets supplemented with different level of chromium methionine under heat stress conditions. Asian-Australian Journal Animal Science 25: 256-260.Google Scholar
EBRAHIMZADEH, S.K., FARHOOMAND, P. and NOORI, K. (2013) Effects of chromium methionine supplementation on performance, carcass traits, and the Ca and P metabolism of broiler chickens under heat-stress conditions. Journal Applied Poultry Research 22: 382-387.Google Scholar
EFSA NDA PANEL (EFSA Panel on Dietetic Products, Nutrition and Allergies) (2014) Scientific Opinion on Dietary Reference Values for Chromium. EFSA Journal 12: 3845, 25 pp. doi:10.2903/j.efsa.2014.3845. Available online: www.efsa.europa.eu/efsajournal.Google Scholar
EVANS, V.G. and BOWMAN, T.D. (1992) Chromium picolinate increases membrane fluidity and rate of insulin internalisation. Journal Inorganic Biochemistry 46: 243-250.Google Scholar
EZE, D.C., OKWOR, E.C., ANIKE, W.U., KAZEEM, H.M. and MAJIYAGBE, K.A. (2014) Effect of chromium propionate on the humoral immune response and performance of broilers vaccinated against Newcastle disease in the tropics. Journal Animal Plant Sciences 24: 1709-1715.Google Scholar
GAMBA, J.P., RODRIGUES, M.M., GARCIA NETO, M., PERRI, S.H.V., FARIA JÚNIOR, M.J.A. and PINTO, M.P. (2015) The strategic application of electrolyte balance to minimize heat stress in broilers. Brazilian Journal Poultry Science 17: 237-246.Google Scholar
GHANBARI, S., EBRAHIMNEZHAD, Y., ESHRATKHAH, B. and NAZERADI, K. (2012) Effect of dietary chromium supplementation on performance and carcass traits of broiler chicks. Pakistan Journal Nutrition 11: 467-472.Google Scholar
GHAZI, S.H., HABIBIAN, M. and MOEINI, M.M. (2012) Effects of different levels of organic and inorganic chromium on growth performance and immunocompetence of broilers under heat stress. Biological Trace Element Research 146: 309-317.CrossRefGoogle ScholarPubMed
GURSOY, U. (2000) Chromium in broiler diets. Feed International 21: 24-26.Google Scholar
HABIBIAN, M., GHAZI, S. and MOEINI, M. (2013) Lack of effect of dietary chromium supplementation on growth performance and serum insulin, glucose, and lipoprotein levels in broilers reared under heat stress condition. Biological Trace Element Research 153: 205-211.Google Scholar
HAZELWOOD, R.L. (1986) Carbohydrate Metabolism, in: Sturkie P.D. (Ed) Avian Physiology. Springer, New York, NY.Google Scholar
HUANG, Y., YANG, J., XIAO, F., LLOYD, K. and LIN, X. (2016) Effects of supplemental chromium source and concentration on growth performance, carcass traits, and meat quality of broilers under heat stress conditions. Biological Trace Element Research 170: 216-233.Google Scholar
HOSSAIN, S.M., BARRETO, S.L.T. and SILVA, C.G. (1998) Growth performance and carcass composition of broiler fed supplemental chromium from chromium yeast. Animal Feed Science Technology 71: 217-228.Google Scholar
HUNT, C.D. and STOECKER, B.J. (1996) Deliberations and evaluations of the approaches, endpoints and paradigms for boron, chromium and fluoride dietary recommendations. Journal Nutrition 126: 2441S-2451S.CrossRefGoogle ScholarPubMed
ISLAM, M.M., KABIR, S.M.L., SARKER, Y.A., SIKDER, M.M.H., ISLAM, S.K.S., AKTHER, A.H.M.T. and HOSSAIN, M.M. (2016) Risk assessment of chromium levels in broiler feeds and meats from selected farms of Bangladesh. Bangladesh Journal Veterinary Medicine 14: 131-134.Google Scholar
JACKSON, A.R., POWELL, S., JOHNSTON, S., SHELTON, J.L., BIDNER, T.D., VALDEZ, F.R. and SOURTHERN, L.L. (2008) The effect of chromium propionate on growth performance and carcass traits in broilers. Journal Applied Poultry Research 17: 476-481.Google Scholar
JAHANIAN, R. and RASOULI, E. (2015) Dietary chromium methionine supplementation could alleviate immunosuppressive effects of heat stress in broiler chicks. Journal of Animal Sciences 93: 3355-3363.Google Scholar
JAIN, S.K. and KANNAN, K. (2001) Chromium chloride inhibits oxidative stress and TNF-alpha secretion caused by exposure to high glucose in cultured U937 monocytes. Biochemical Biophysical Research Communications 289: 687-691.Google Scholar
JAVED, M.T., ELLAHI, M., ABBAS, N., YASMIN, R. and MAZHAR, M. (2010) Effects of dietary chromium chloride, nicotinic acid and cooper sulphate on meat of broilers. British Poultry Science 51: 354-360.CrossRefGoogle Scholar
KANDROR, K.V. (1999) Insulin regulation of protein traffic in rat adipocyte cells. Journal Biological Chemistry 274: 25210-25217.Google Scholar
KHAN, R.U., NAZ, S., NIKOUSEFAT, K., SELVAGGI, M., LAUDADIO, V. and TUFARELLI, V. (2012) Effect of ascorbic acid in heat-stressed poultry. World's Poultry Science Journal 68: 477-490.Google Scholar
KHAN, R.U., NAZ, S. and DHAMA, K. (2014) Chromium: pharmacological applications in heat-stress in poultry. International Journal Pharmacology 10: 213-217.Google Scholar
KRÓLICZEWSKA, B., ZAWADSKI, W., DOBRZANSKI, Z. and KACZMAREK-OLIWA, A. (2004) Changes in selected serum parameters of broiler chicken fed supplemental chromium. Journal Animal Physiology Animal Nutrition 88: 393-400.Google Scholar
LIN, Y.C., HUANG, J.T., LI, M.Z., CHENG, C.Y. and LIEN, T.F. (2014) Effects of supplemental nanoparticle trivalent chromium on the nutrient utilisation, growth performance and serum traits of broilers. Journal Animal Physiology Animal Nutrition 99: 59-65.Google Scholar
LUKASKI, H.C. (1999) Chromium as a supplement. Annual Review Nutrition 19: 279-302.Google Scholar
MAHMOUD, K.Z., EDENS, F.W., EISEN, E.J. and HAVENSTEIN, G.B. (2004) Ascorbic acid decreases heat shock protein 70 and plasma corticosterone response in broilers (Gallus gallus domesticus) subjected to cyclic heat stress. Comparative Biochemistry Physiology Part B 137: 35-42.Google Scholar
MIRFENDERESKI, E. and JAHANIAN, R. (2015) Effects of dietary organic chromium and vitamin C supplementation on performance, immune responses, blood metabolites, and stress status of laying hens subjected to high stocking density. Poultry Science 94: 281-288.CrossRefGoogle ScholarPubMed
MOEINI, M.M., BAHRAMI, A., GHAZI, S. and TARGHIBI, M.R. (2011) The effect of different levels of organic and inorganic chromium supplementation on production performance, carcass traits and some blood parameters of broiler chicken under heat stress condition. Biological Trace Element Research 144: 715-724.Google Scholar
MOHAMMED, H.H., EL-SAYED, B.M., ABD EL-RAZIK, W.M., ALI, M.A. and ABD EL-AZIZ, R.M. (2014) The influence of chromium sources on growth performance, economic efficiency, some maintenance behaviour, blood metabolites and carcass traits in broiler chickens. Global Veterinaria 12: 599-605.Google Scholar
NAGHIEH, A., TOGHYANI, M., GHEISARI, A.A., SAEED, S.E. and MIRANZAEDH, H. (2010) Effect of different sources of supplemental chromium on performance and immune responses of broiler chicks. Journal Animal Veterinary Advances 9: 354-358.Google Scholar
NAVIDSHAD, B., PIRSARAEI, Z.A. and CHASHNIDEL, Y. (2010) Effects of dietary chromium polynicotinate supplementation on performance, fat deposition and plasma lipids of broiler chickens. Italian Journal Animal Science 9: 61-64.Google Scholar
NOORI, K., FARHOOMAND, P. and EBRAHIMZADEH, S.K. (2012) Effect of chromium methionine supplementation on performance and serum metabolites in broiler chickens thermoneutral and under heat-stress conditions. Iran Journal Applied Animal Science 2: 79-82.Google Scholar
NORAIN, T.M., ISMAIL, I.B., ABDOUN, K.A. and AL-HAIDARY, A.A. (2013) Dietary inclusion of chromium to improve growth performance and immue-competence of broilers under heat stress. Italian Journal Animal Science 12: 562-566.Google Scholar
OBA, A., SOUZA, P.A., SOUZA, H.B.A., LEONEL, F.R., PELICANO, E.R.L., ZEOULA, N.M.B. and BOLELLI, I.C. (2007) Qualidade da carne de frangos de corte submetidos a dietas com crômio, criados em diferentes temperaturas ambientais. Acta Scientiarum Animal Science 29: 143-149.Google Scholar
OBA, A., LOPES, P.C.F., BOIAGO, M.M., SILVA, A.M.S., MONTASSIER, H.J. and SOUZA, P.A. (2012) Características produtivas e imunológicas de frangos de corte submetidos a dietas suplementadas com cromo, criados sob diferentes condições de ambiente. Revista Brasileira Zootecnia 41: 1186-1192.Google Scholar
OGLE, C.K., VALENTE, J.F., GUO, X., LI, B.G., OGLE, J.D. and ALEXANDER, J.W. (1997) Thermal injury induces the development of inflammatory macrophages from nonadherent bone marrow cells. Inflammation 21: 569-582.Google Scholar
OLIVEIRA, R.F.M., DONZELE, J.L., ABREU, M.L.T., FERREIRA, R.A., VAZ, R.G.M.V. and CELLA, P.S. (2006) Efeitos da temperatura e da umidade relativa sobre o desempenho e o rendimento de cortes nobres de frangos de corte de 1 a 49 dias de idade. Revista Brasileira de Zootecnia 35: 797-803.Google Scholar
OLUFEMI, A.A. and BOSEDE, M.A. (2011) Effect of inorganic chromium supplementation on performance, meat quality, residual chromium and mineral composition of heat-stress broiler birds. International Journal AgriScience 1: 373-380.Google Scholar
PAN, Y.Z., WU, S.G., DAI, H.C., ZHANG, H.J., YUE, H.Y. and QI, G.H. (2013) Solexa sequencing of microRNAs on chromium metabolism in broiler chicks. Journal Nutrigenetics Nutrigenomics 6: 137-153.Google Scholar
PECHOVA, A. and PAVLATA, L. (2007) Chromium as na essential nutrient: a review. Veterinarni Medicina 52: 1-18.Google Scholar
PERAI, A.H., KERMANSHAHI, H. and MOGHADDAM, H.N. (2014) Effects of supplemental vitamin C and chromium on metabolic and hormonal responses, antioxidant status, and tonic immobility reactions of transported broiler chickens. Biological Trace Element Research 157: 224-233.Google Scholar
PUVADOLPIROD, S. and THAXTON, J.P. (2000) Model of physiological stress in chickens 4. Digestion and metabolism. Poultry Science 79: 383-390.Google Scholar
RAJALEKSHMI, M., SUGUMAR, C., CHIRAKKAL, H. and RAMARAO, S.V. (2014) Influence of chromium propionate on the carcass characteristics and immune response of commercial broiler birds under normal rearing conditions. Poultry Science 93: 574-580.Google Scholar
RAO, S.V.R., RAJU, M.V., PANDA, A.K., POONAM, N.S., MURTHY, O.K. and SUNDER, G.S. (2012) Effect of dietary supplementation of organic chromium on performance, carcass traits, oxidative parameters and immune responses in commercial broiler chickens. Biological Trace Element Research 147: 135-141.Google Scholar
RAO, S.V.R., PRAKASH, B., RAJU, M.V.L.N., PANDA, A.K. and KUMARI, R.K. (2016) Effect of supplementing organic forms of zinc, selenium and chromium on performance, anti-oxidant and immune responses in broiler chicken reared in tropical summer. Biological Trace Element Research 172: 511-520.Google Scholar
RENAUDEAU, D., COLLIN, A., YAHAV, S., DE BASILIO, V., GOURDINE, J.L. and COLLIER, R.J. (2012) Adaptation to hot climate and strategies to alleviate heat stress in livestock production. Animal 6: 707-728.Google Scholar
RHOADS, R.P., BAUMGARD, L.H., SUAGEE, J.K. and SANDERS, S.R. (2013) Nutrition interventions to alleviate the negative consequences of heat stress. Advances Nutrition 4: 267-276.Google Scholar
RIMOLD, S., LASAGNA, E., SARTI, F.M., MARELLI, S.P., COZZI, M.C., BERNARDINI, G. and TEROVA, G. (2015) Expression profile of six stress-related genes and productive performances of fast and slow growing broiler strains reared under heat stress conditions. Meta Gene 6: 17-25.Google Scholar
RIBEIRO, M.V.M., ROQUE, A.K.L., VIEIRA, E.C. and CALDAS, N.M. (2011) Determinação da concentração de cromo na carne de frango de corte alimentados com ração suplementada. Available in: http://www.annq.org/congresso2011/arquivos/1300408411.pdf.Google Scholar
SAHIN, K., SAHIN, N., ONDERIC, M., GURSU, F. and CIKIM, G. (2002) Optimal dietary concentration of chromium for alleviating the effect of heat stress on growth, carcass qualities, and some serum metabolites of broiler chickens. Biological Trace Element Research 89: 53-64.Google Scholar
SAHIN, K., SAHIN, N. and KÜÇÜK, O. (2003) Effects of chromium and ascorbic acid supplementation on growth, carcass traits, serum metabolites, and antioxidant status of broiler chickens reared at a high environmental temperature (32°C). Nutrition Research 23: 225-238.Google Scholar
SAHIN, K., SAHIN, N., KÜÇÜK, O., HAYRLI, A. and PRASAD, A.S. (2009) Role of dietary zinc in heat-stressed poultry: A review. Poultry Science 88: 2176-2183.Google Scholar
SAHIN, N., AKDEMIR, F., TUZCU, M., HAYRLI, A., SMITH, M.O. and SAHIN, K. (2010) Effects of supplemental chromium sources and levels on performance, lipid peroxidation, and proinflammatory markers in heat-stressed quails. Animal Feed Science Technology 159: 143-149.Google Scholar
SAHIN, N., HAYRLI, A., ORHAN, C., TUZCU, M., AKDEMIR, F., KOMOROWSKI, J.R. and SAHIN, K. (2017) Effects of supplemental chromium form on performance and oxidative stress in broilers exposed to heat stress. Poultry Science: doi: 10.3382/ps/pex249.Google Scholar
SAMANTA, S., HALDAR, S., BAHADUR, V. and GHOSH, T.K. (2008) Chromium picolinate can ameliorate the negative effects of heat stress and enhance performance, carcass and meat traits in broiler chickens by reducing the circulatory cortisol level. Journal Science Food Agriculture 88: 787-796.Google Scholar
SANDS, J.S. and SMITH, M.O. (1999) Broilers in heat stress conditions: Effects of dietary manganese proteinate or chromium picolinate supplementation. Journal Applied Poultry Research 8: 280-287.Google Scholar
SETHI, J.K. and HOTAMISLIGIL, G.S. (1999) The role of TNFα in adipocyte metabolism. Cell Developmental Biology 10: 19-29.Google Scholar
SIEGEL, H.S. (1995) Stress, strains and resistance. British Poultry Science 36: 3-22.CrossRefGoogle ScholarPubMed
SILVA, S.R.G., ABREU, M.L.T., LOPES, J.B., LEAL, D.I.B., ALMENDRA, S.N.O., SILVA, S.M.M.S. and COSTA, S.E.M. (2014) Desempenho e resposta imune de frangos de corte alimentados com dietas suplementadas com cromo na forma orgânica. Revista Brasileira Ciências Veterinárias 21: 199-203.Google Scholar
SILVA, G.C., NASCIMENTO, M.R.B.M., PENHA-SILVA, N., FERNANDES, E.A., VILELA, D.R. and SOUTO, M.M. (2015) Suplementação com zinco e selênio em frangos de corte submetidos a estresse cíclico de calor. Revista Ceres 62: 372-378.Google Scholar
SIRIRAT, N., LU, J.J., HUNG, A.T.Y., CHEN, S.Y. and LIEN, T.F. (2012) Effects different levels of nanoparticles chromium picolinate supplementation on growth performance, mineral retention, and immune responses in broilers chickens. Journal of Agricultural Sciences 4: 48-58.Google Scholar
SOUZA, L.M.G., MURAKAMI, A.E., FERNANDES, J.I.M., GUERRA, F.L.H. and MARTINS, E.M. (2010) Chromium influence on performance, meat quality and concentration of lipids in broiler blood plasma. Brazilian Journal Animal Science 39: 808-814.Google Scholar
SONG, D.J. and KING, A.J. (2015) Effects of heat stress on broiler meat quality. World's Poultry Science Journal 71: 701-709.CrossRefGoogle Scholar
TAWFEEK, S.S., HASSANIN, K.M.A. and YOUSSEF, I.M.I. (2014) The effect of dietary supplementation of some antioxidants on performance, oxidative stress, and blood parameters in broilers under natural summer conditions. Journal World's Poultry Research 4: 10-19.Google Scholar
TOGHYANI, M., SHIVAZAD, M., GHEISARI, A.A. and ZARKESH, S.H. (2006) Performance, carcass traits and hematological parameters of heat-stressed broiler chicks in response to dietary levels of chromium picolinate. International Journal Poultry Science 5: 65-69.Google Scholar
TOGHYANI, M., ZARKESH, S.H., SHIVAZAD, M. and GHEISARI, A.A. (2007) Immune responses of broiler chicks fed chromium picolinate in heat stress condition. Journal Poultry Science 44: 330-334.Google Scholar
TOGHYANI, M., GHEISARI, A.A., KHODAMI, A., TOGHYANI, M., MOHAMMADREZAEI, M. and BAHADORAN, R. (2010) Effect of dietary chromium yeast on thigh meat quality of broiler chicks in heat stress condition. International Journal Biology Life Science 6: 196-199.Google Scholar
TOGHYANI, M., TOGHYANI, M., SHIVAZAD, M., GHEISARI, A.A. and BAHADORAN, R. (2012) Chromium supplementation can alleviate the negative effects of heat stress on growth performance, carcass traits, and meat lipid oxidation of broiler chicks without any adverse impacts on blood constituents. Biological Trace Element Research 146: 171-180.Google Scholar
VAZ, R.G.M., OLIVEIRA, R.F.M., DONZELE, J.L., ALBINO, L.F.T., OLIVEIRA, W.P. and SILVA, B.A.N. (2009) Levels of dietary chromium in rations for male broilers kept under heat stress from one to 42 days of age. Arquivo Brasileiro Medicina Veterinária Zootecnia 61: 484-490.Google Scholar
VINCENT, J.B. (2000a) Elucidating a biological role for chromium at a molecular level. Accounts Chemical Research 33: 503-510.Google Scholar
VINCENT, J.B. (2000b) The biochemistry of chromium. Journal Nutrition 130: 715-718.Google Scholar
VINCENT, J.B. (2010) Chromium: celebrating 50 years as an essential element? Dalton Transactions 39: 3787-3794.Google Scholar
WANG, M.Y., TSAI, M.Y. and WANG, C. (1994) Identification of chicken liver glucose transporter. Archives of Biochemistry and Biophysics 310: 172-179.Google Scholar
WHITE, M.K., RALL, T.B. and WEBER, J. (1991) Differential regulation of glucose transporter isoforms by the src oncogene in chicken embryo fibroblasts. Molecular and Cellular Biology 11: 4448-4454.Google Scholar
XIAO, F., AO, D., ZHOU, B., SPEARS, J.W., LIN, X. and HUANG, Y. (2016) Effects of supplemental chromium propionate on serum lipids, carcass traits, and meat quality of heat-stressed broilers. Biological Trace Element Research 176: 401-406.Google Scholar
YAMAMOTO, A., WADA, O. and ONO, T. (1987) Isolation of biologically active low-molecular-mass chromium compound from rabbit liver. European Journal Biochemistry 165: 627-631.Google Scholar
ZHA, L.Y., ZENG, J.W., CHU, X.W., MAO, L.M. and LUO, H.J. (2009) Efficacy of trivalent chromium on growth performance, carcass characteristics and tissue chromium in heat-stressed broilers chicks. Journal Science Food Agriculture 89: 1782-1786.Google Scholar
ZHANG, Z.Y., JIA, G.Q., ZUO, J.J., ZHANG, Y., LEI, J., REN, L. and FENG, D.Y. (2012) Effects of constant and cyclic heat stress on muscle metabolism and meat quality of broiler breast fillet and thigh meat. Poultry Science 91: 2931-2937.Google Scholar
ZHANG, S. and KIM, I.H. (2014) Effects of Cr-methionine supplementation on growth performance, relative organ weight, immune hormones, and meat quality of broiler chicks under heat stress. Indian Journal Animal Science 84: 511-515.Google Scholar
ZHAO, J.P., LIN, H., JIAO, H.C. and SONG, Z.G. (2009) Corticosterone suppresses insulin-and NO-stimulated muscle glucose uptake in broiler chickens (Gallus gallus domesticus). Comparative Biochemistry and Physiology 149: 448-454.Google Scholar