Estimating Breeding values for milk production and mastitis traits for Holstein cattle in Egypt

Eslam Faid-Allah


This study was carried out to evaluate the sires and dams genetically for milk production and mastitis traits in Egyptian 12 herds of Holstein cattle using Best Linear Unbiased Prediction via MTDFREML program. The data was obtained from a commercial farm called Dena, located in Cairo-Alex Desert Road (80 Km), Menofia, Egypt. Data included 4791 cows, 4227 dams and 248 sires that represented the period from 2007 to 2014. Estimating breeding values for milk production traits as cumulative milk yield at 90 days (90-DM), cumulative milk yield at 180 days (180-DM), cumulative milk yield at 270 days (270-DM), cumulative milk yield at 305 days (305-DM), and number of mastitis infection around the season of lactation (MAST). The averages of the 90-DM, 180-DM, 270-DM, 305-DM and MAST were 3026.3±655.1 kg, 5873.3±1081.1 kg, 7891.1±2692.2 kg, 9611.2±1897.9 kg, and 0.712±1.2 time/parity, respectively. Estimates of heritability for the previous traits were 0.11±0.016, 0.15±0.014, 0.18±0.012, 0.22±0.015, and 0.09±0.029, respectively; genetic variance were 47206.2 kg, 175300.6 kg, 1304654.4 kg, 792411.6 kg and 0.12 time/parity, respectively; and phenotypic variance were 429147.6 kg, 1168670.6 kg, 7248079.9 kg, 3601870.9 kg, and 1.35 time/parity, respectively. The EBV values as average, SD, (Min: Max) for sires were 0.0±0.179 (-0.4: 0.66) for MAST, 0.0±86.176 (-263.1: 245.4) for 90-DM, 0.0±227.523 (-600.3: 800.3) for 180-DM, 0.0±413.48 (-323.3: 1277.7) for 270-DM and 0.0±440.26 (-1280.9: 1565.1) for 305-DM. Also, The EBVs for dams were 0.0±0.055 (-0.14: 0.45) for MAST, 0.033±26.24 (-142.8: 103.0) for 90-DM, 0.074±76.81 (-360.2: 289.6) for 180-DM, -0.045±139.66 (-591.9: 529.2) for 270-DM and 0.266±154.1 (-666.3: 617.6) for 305-DM. These results provide that the selection of sires and dams will improve the traits of milk production and mastitis in this herd because of the wide differences in genetic potential among sires and dams.


Heritability, Breeding value, BLUP, Milk production, Mastitis, Holstein cattle

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Abdel-Glil M. 1991. Sire differences for milk production traits in Friesian cattle (Thesis). [Ash Sharqiyah (Egypt)]: Zagazig University.

Abdel-Moez K. 2007. A genetic study on lactation traits of Holstein cattle and its crosses with European Friesian in a commercial farm in Egypt (Thesis). [Cairo (Egypt)]: Cairo University.

Abou-Bakr S, Alhammad HOA, Sadek RR, Nigm AA. 2006. Productive and reproductive characteristics of Holstein cows raised under intensive farming system in Egypt. Egyptian J Anim Prod. 43:91-98.

Al-Samarai F, Abdulrahman Y, Mohammed F, Al-Zaidi F, Al-Anbari N. 2015. Comparison of several methods of sire’s evaluation for total milk yield in a herd of Holstein cows in Yemen. Open Vet. J. 5:11-17.

Ashmawy A, Khalil M. 1990. Single and multi-trait selection for lactation in Holstein-Friesian cows Egypt. J Anim Prod. 272:171-184.

Atashi H, Moradi S, Abdolmohammadi A. 2006. Study of Suggested Measures of Milk Yield Persistency and Their Relationships. Int J Agric Bio. 8:387-390.

Atil H. 1999. Ratio and regression factors for prediction 305-day production from part lactation milk records in a herd of Holstein Friesian cattle. Pak J Biol Sci. 2:31.

Atil H, Khattab A. 1999. Seasonal age correction factors for 305-day milk yield in Holstein cattle. Pak J Bio Sci. 2:296-300.

Ayalew W, Aliy M, Negussie E. 2017. Estimation of genetic parameters of the productive and reproductive traits in Ethiopian Holstein using multi-trait models. Asian-Australasian J Anim Sci. 30:1550-1556.

Banik S, Gandhi R. 2006. Animal model versus conventional models of sire evaluation in Sahiwal cattle. Asian-Australasian J Anim Sci. 19:1225-1228.

Banik S, Gandhi R. 2010. Sire evaluation using single and multiple trait animal models in Sahiwal cattle. Indian J Anim Sci. 80:269-270.

Boldman K, Kriese L, Van Vleck L, Van Tassell C, Kachman S. 1995. A manual for use of [MTDFREML] A Set of programs to obtain estimates of variances and covariances. Washington DC (USA): USDA/AES.

Dadpasand M, Zamiri M, Atashi H. 2013. Genetic correlation of average somatic cell score at different stages of lactation with milk yield and composition in Holstein cows. Iranian J Vet Res. 14:190-196.

Dalal D, Rathi S, Raheja K. 1999. Relationship between sires estimated breeding values for first lactation and lifetime traits in Hariana cattle. Indian J Anim Sci. 72:398-01.

De Roos A, Harbers A, de Jong G. 2004. Random herd curves in a test-day model for milk, fat, and protein production of dairy cattle in the Netherlands. J Dairy Sci. 87:2693-2701.

Dongre V, Gandhi R. 2014. Study on sire evaluation methods in Sahiwal cattle. Indian J Vet Anim Sci Res. 43:174-179.

Dubey P, Singh C, Prasad R. 2006. Relationship between sire’s estimated breeding values for first lactation and lifetime traits and ranking of sires in Sahiwal and its cross. Indian J Anim Sci. 76:824-828.

Duelkar P, Kothekar M. 1999. Sire evaluation considering FLY for improvement of lifetime production in Sahiwal. Indian J Anim Sci. 69:240-242.

El-Bayoumi K, El-Tarabany M, Abdel-Hamid T, Mikaeil O. 2015. Heritability, genetic correlation and breeding value for some productive and reproductive traits in Holstein cows. Res Opin Anim Vet Sci. 5:65-70.

El-Shalmani A. 2011. Evaluation of production performance in relation to genetic structure of some economical traits in Friesian cows (Thesis). [Alexandria (Egypt)]: Alexandria University.

Endris M, Tumwasorn S, Sopannarath P, Prasanpanich S. 2013. Genotype by region interaction on milk production traits of Holstein crossbred dairy cows in Thailand. Kasetsaart J Nat Sci. 47:228-237.

Faid-Allah E, Ghoneim E, Ibrahim A. 2016. Estimated variance components and breeding values for pre-weaning growth criteria in Romney sheep. JITV. 21:73-82.

Farrag F, Shalaby N, Gabr A, El Ashry M. 2017. Evaluation of Friesian cattle performance at first lactation under different Egyptian conditions. J Anim Poultry Prod Mansoura Univ. 8:7-11.

Fu XF, Lu LL, Huang X, Wang Y, Tian K, Xu X, Fang J, Cheng L, Guo Z, Tian Y. 2017. Estimation of genetic parameters for 305 days milk yields and calving interval in Xinjiang Brown cattle. Agric Sci. 8:46-55.

Ghoneim E, Abd-Ellatif M, Abdelharith H, Abd Elhamid M. 2011. Genetic parameters for age at first calving and lifetime milk yield traits in Friesian cattle in Egypt. Minufiya J Agric Res. 36:913-923.

Govignon-Gion A, Dassonneville R, Baloche G, Ducrocq V. 2016. Multiple trait genetic evaluation of clinical mastitis in three dairy cattle breeds. Animal. 10:558-565.

Groen A, Steine T, Colleau J, Pedersen J, Pribyl J, Reinsch N. 1997. Economic values in dairy cattle breeding, with special reference to functional traits. EAAP working group. Livest Prod Sci. 49:1-21.

Guler O, Yanar M, Akbulut O. 2010. Variance component estimation for heritability of Gamma lactation curve traits of Holstein Friesian cattle. The Indian Vet J. 87: 35-38.

Hammoud M. 2013. Genetic aspects of some first lactation traits of Holstein cows in Egypt. Alex J Agric Res. 58:295-300.

Heringstad B, Chang Y, Gianola D, Klemetsdal G. 2005. Genetic analysis of clinical mastitis, milk fever, ketosis, and retained placenta in three lactations of Norwegian Red cows. J Dairy Sci. 88:3273–3281.

Jamrozik K, Koeck A, Miglior F. 2013. Genetic and genomic evaluation of mastitis resistance in Canada. Interbull Bulletin. 47:23-26.

Kaygisiz A. 2013 Estimation of genetic parameters and breeding values for dairy cattle using test-day milk yield records. J Anim Plant Sci. 23:345-349.

Khattab A, El Ariain M, Atil H. 2000. Estimation of milk producing ability of Holstein Friesian cattle in a commercial herd in Egypt. Pak J Biol Sci. 3:1076.

Khattab A, Sultan Z, Kassab M, Salem A. 1993. Inheritance of part lactation records in Friesian cows in Egypt. J Agric Res Tanta Univ. 19:747.

Kumar A, Gandhi R, Singh A, Haile A. 2008. Comparison of animal model with other conventional methods of sire evaluation for milk production in Karan Fries cattle. Indian J Anim Sci. 78:1393-1396.

Kumar V, Chakravarty A. 2014. Genetic study on performance of Murrah buffalo bulls. Int J Develop Res. 4:1482-1484.

Malindo R. 2017. Genetic and non-genetic analysis of milk production and reproduction traits in Holstein-Friesian cattle reared at BBPTU-HPT Baturraden Central Java. (Thesis). [Bogor (Indones)]: Bogor Agricultural University.

Meyer K. 1985. Genetic parameters for dairy production of Australian Black and White cows. Livest Prod Sci. 12:205-219.

Miglior F, Muir BL, Van Doormaal BJ. 2005. Selection indices in Holstein cattle of various countries. J Dairy Sci. 88:1255-1263.

Moges T, Singh C, Barwal R, Kumar D, Singh C. 2009. Evaluation of sires using different multitrait sire evaluation methods in crossbred cattle. Indian J Dairy Sci. 62:1-4.

Muammer T, Mehmet C, Mehmet S. 2009. Genetic parameters of 305-day milk yield for Brown Swiss reared in the Bahri Dağdaş International Agricultural Research Institute in Turkey. Kafkas Univ Vet Fak Derg. 15:397-400.

[NRC] National Research Council. 2001. Nutrient Requirements of Dairy Cattle. 7th ed. Washington DC (USA): National Academy of Science, National Research Council.

Pérez-Cabal M, Charfeddine N. 2013. Genetic relationship between clinical mastitis and several traits of interest in Spanish Holstein dairy cattle. Interbull Bulletin. Nantes. France. 47:77-81.

Perez-Cabal M, de los Campos G, Vazquez A, Gianola D, Rosa G, Weigel K, Alenda R. 2009. Genetic evaluation of susceptibility to clinical mastitis in Spanish Holstein cows. J Dairy Sci. 92:3472–3480.

Pirzada R. 2011. Estimation of genetic parameters and variance components of milk traits in Holstein-Friesian and British-Holstein Dairy cows. Kafkas Univ Vet Fak Derg. 17:463-467.

Radwan H, Abo Elfadl E, Fardos A. 2015. Estimates of population parameters for some economic traits in Holstein Friesian cows by using statistical program. Global Vet. 14:129-135.

Rushdi H, Ibrahim M, Shaddad N, Nigm A. 2014. Estimation of genetic parameters for milk production traits in a herd of Holstein Friesian cattle in Egypt. J Anim Poult Prod Mansoura Univ. 5:267-278.

Salem A, Kassab M, Khattab A, Hussien A. 2000. Age correction factors for milk yield traits in a commercial herd of Friesian cattle in Egypt J Agric Sci Mansoura Univ. 25:3945.

Salem M, Esmail H, Sadek R, Nigm A. 2006. Phenotypic and genetic parameters of milk production and reproductive performance of Holstein cattle under the intensive production system in Egypt. Egypt J Anim Prod. 43:1-10.

Salem M, Hammoud M. 2016. Estimates of heritability, repeatability and breeding value of some performance traits of Holstein cows in Egypt using repeatability animal model. Egyptian J Anim Prod. 53:147-152.

Shalaby N, El-Barbary A, Oudah E, Helmy M. 2012. Genetic parameters and breeding values of some productive and reproductive traits Friesian cattle in Egypt. Proceeding the 15th AAAP Animal Science Congress 26-30. Thummassat Univ. Rangift, Thailand.

Silvestre A, Petim-Batista F, Colaco J. 2005. enetic parameter estimates of Portuguese dairy cows for milk, fat and protein using a Spline Test-Day Model. J Dairy Sci. 88:1225.

Singh J, Singh C. 2016. Evaluation of sires using different sire evaluation methods on the basis of first lactation traits in Sahiwal cattle. J Vet Sci Technol. 7:296.

Suleyman C, Ali K. 2008. Breeding value estimation of dairy cattle using test day milk yields for Brown Swiss cows reared at Ulaş State farm. J Anim Vet Adv. 7:703-706.

Tawfik E, Mohsen M, AY S, EL-Awady H. 2000. Study on Friesian Herds Raised in Egypt and Germany (I. Estimate of non-genetic effects and genetic parameters). Arch Tierz Dummerstorf. 43:101-114.

Tuna Y. 2004. Studies on the genetic constitution of Black and White dairy cattle raised in Tahirova State farm. Pak J Bio Sci. 7:931-933.

Urioste J, Franzén J, Windig J, Strandberg E. 2012. Genetic relationships among mastitis and alternative somatic cell count traits in the first 3 lactations of Swedish Holsteins. J Dairy Sci. 95:3428–3434.

Wolf J, Wolfova M, Stipkova M. 2010. A model for the genetic evaluation of number of clinical mastitis cases per lactation in Czech Holsteins cows. J Dairy Sci. 93:1193-1204.

Zavadilová L, Štípková M, Šebková N, Svitáková A. 2015. Genetic analysis of clinical mastitis data for Holstein cattle in the Czech Republic Arch. Anim Breed. 58:199-204.

Zavadilová L, Štípková M, Svitáková A, Krupová Z, Kašná E. 2017. Genetic parameters for clinical mastitis, fertility and somatic cell score in Czech Holstein cattle. Ann Anim Sci. 17:1007-1018.

Zein D. 2014. Genetic relationships among some dairy traits in Friesian cattle in Egypt (Thesis). [‎Al Minufya (Egypt)]: Menoufya University.

Zutere R. 2008. Estimates of breeding values for dairy cattle using test-day milk yields. Latvian J Agronomy. 10:293-299.

Zwald N, Weigel K, Chang Y, Welper R, Clay J. 2006. Genetic analysis of clinical mastitis data from onfarm management software using threshold models. J Dairy Sci. 89:330-336.


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