Genetic variants in exon 4 region of FABP3 gene in relation to milk production traits in Sahiwal and Karan fries cattle

Title: Genetic variants in exon 4 region of FABP3 gene in relation to milk production traits in Sahiwal and Karan fries cattle

Authors: Alok Kumar Yadav and Anupama Mukherjee

Source: Ruminant Science (2018)-7(2):189-198.

Cite this reference as: Yadav AK and Mukherjee Anupama (2018). Genetic variants in exon 4 region of FABP3 gene in relation to milk production traits in Sahiwal and Karan Fries cattle. Ruminant Science 7(2): 189-198.

 Abstract

The present study pertained to records on milk production and milk constituents of 100 Sahiwal cattle and 115 Karan Fries cattle. The data collected over a period of 2004 to 2016 from Animal Genetics and Breeding Division of ICAR-National Dairy Research Institute, Karnal Haryana. In Sahiwal SNP at position T61045G was highly (p<0.01) associated with FL305DPY and non significant for FL305DMY, FLTMY, FL305 DFY, FL305DSNFY and FL305DPY. The mean±SE of GG genotype for FL305DMY, FLTMY, FL305DFY, FL305DSNFY, FL305DPY were 1794.2±11.0, 2009.7±11.2, 100.18±0.46, 154.82±0.12 and 44.54±0.05 respectively and for TG genotypes were found to be 1802.50±15.5, 1982.70±15.8, 100.73±0.66, 154.63±0.17 and 43.94±0.08 respectively. TT genotypes had the respective values of 1829.30±11.0, 2025.90±11.2, 100.30±0.46, 155.09±0.12 and 43.24±0.05.  Homozygous (TT) genotype was superior for FL305DMY, FLTMY, FL305DSNFY traits and Heterozygous (TG) genotype was superior for FL305DFY and homozygous (GG) genotype was superior for FL305DPY traits. In Karan Fries SNP at position T60810C was highly (p<0.01) associated with FL305DMY, FLTMY, FL305DSNFY and FL305DPY and non significantly with FL305DFY. The mean±SE of TT genotype for FL305DMY, FLTMY, FL305DFY, FL305DSNFY, FL305DPY were 3490.69±5.86, 4510.45±8.86, 131.72±4.40, 277.83±0.06 and 113.04±0.05 respectively and for CT genotypes the respective values were 3598.05±8.86, 4617.81±8.86, 144.12±6.66, 278.82±0.09, 114.19±0.08. Heterozygous CT genotype was superior for all traits. In Karan Fries, SNP at position T61170C are highly (p<0.01) associated with FL305DMY, FLTMY, FL305DSNFY and FL305DPY and non significantly with FL305 DFY. The mean±SE of CC genotype for FL305DMY, FLTMY, FL305DFY, FL305DSNFY, FL305DPY were found to be 3582.21±7.10, 4601.97±7.10, 144.02±5.53, 278.69±0.07 and 114.01±0.07, respectively and for TT genotype the respective values were 3478.09±6.23, 4497.85±6.23, 128.93±4.85, 277.70±0.06, 112.91±0.06. CC genotype was superior for all traits in present study.

References

Binas B, Spitzer E, Zschiesche W, Erdmann B, Kurtz A, Muller T, Niemann C, Blenau W and Grosse R (1992). Hormonal induction of functional differentiation and mammary derived growth inhibitor expression in cultured mouse mammary gland explants: In vitro. Cell and Developmental Biology 28A:625-634.

German JB and Dillard CJ (2006). Composition, structure and absorption of milk lipids: a source of energy, fat soluble nutrients and bioactive molecule. Food Science and Nutrition 46(1):57-92.

Jensen RG (2002). The composition of bovine milk lipids. Journal of Dairy Science 85(2):295-350.

Livestock Census (2012). 19th All India Livestock Census. Department of Animal husbandry, Dairying and Fisheries. Ministry of agriculture. Government of India.

Larkin MA, Blackshields G, Brown NP, Chenna R, McGettigan PA, McWilliam H, Valentin F and Wallace IM (2007). ClustalW and ClustalX version 2.0. Bioinform, 23: 2947-2948.

Meyer K (2010). WOMBAT-A Tool for Mixed Model Analyses in Quantitative Genetics by Restricted Maximum Likelihood (REML). Journal of Zhejiang University Science A 8(11):815-82.

Nafikov RA, Schoonmaker JP,  Kathleen TK, Kristin N, Dorian J, Garrick Kenneth JK, Jennifer MB, James MR, Diane ES and Donald CB (2013). Effects of polymorphisms in FABP3, FABP4, and SLC27A6 genes on bovine milk fatty acid composition. Journal of Dairy Science 96(9):6007-21.

Sambrook J and Russell DW (2001). Molecular Cloning. A Laboratory Manual. 3rd Edn. Cold Pring Harbor Laboratory Press, New York.

Schaefer EJ (2002). Lipoproteins, nutrition, and heart disease. American Journal of Clinical Nutrition 75(2):191-212.

Shimano H, Horton JD, Hammer RE, Shimomura I, Brown MS and Goldstein JL (1996). Overproduction of cholesterol and fatty acids causes massive liver enlargement in transgenic mice expressing truncated SREBP-1a. Journal of Clinical Investigation 98(7):1575-1584.

Soyeurt H, Dardenne P, Gillon A, Croquet C, Vanderick S, Mayeres P, Bertozzi C and Gengler N (2006). Variation in fatty acid contents of milk and milk fat within and across breeds. Journal of Dairy Science 89(12):4858-4865.

Stoop WM, Van-Arendonk JA, Heck JM, Van-Valenberg HJ and Bovenhuis H (2008). Genetic parameters for major milk fatty acids and milk production traits of Dutch Holstein-Friesians. Journal of Dairy Science 91(1):385-394.

Untergasser A, Cutcutache I, Koressaar T, Faircloth BC, Remm M and Rozen SG (2012). Primer3- new capabilities and interfaces. Nucleic Acids Research 40(15):115.

Yang T, Espenshade PJ, Wright ME, Yabe D, Gong Y, Aebersold R, Goldstein JL and  Brown MS (2002). Crucial step in cholesterol homeostasis: Sterols promote binding of SCAP to INSIG-1, a membrane protein that facilitates retention of SREBPs in ER. Cell 110(4):489-500.