New Insights on Nucleotide Sequence Variants and mRNA Levels of Candidate Genes Assessing Resistance/Susceptibility to Mastitis in Holstein and Montbeliarde Dairy Cows

被引:10
作者
Essa, Bothaina [1 ]
Al-Sharif, Mona [2 ]
Abdo, Mohamed [3 ,4 ]
Fericean, Liana [5 ]
Ateya, Ahmed [6 ]
机构
[1] Damanhour Univ, Fac Vet Med, Dept Anim Husb & Anim Wealth Dev, Damanhour 22511, Egypt
[2] Univ Jeddah, Coll Sci, Dept Biol, Jeddah 21589, Saudi Arabia
[3] Badr Univ Cairo BUC, Sch Vet Med, Dept Anim Histol & Anat, Cairo 11829, Egypt
[4] Univ Sadat, Fac Vet Med, Dept Anat & Embryol, Sadat City 32897, Egypt
[5] Univ Life Sci King Michael I, Fac Agr Sci, Dept Biol & Plant Protect, Timisoara 300645, Romania
[6] Mansoura Univ, Fac Vet Med, Dept Anim Husb & Anim Wealth Dev, Mansoura 35516, Egypt
关键词
candidate gene; Holstein; Montbeliarde; gene expression; mastitis; SOMATIC-CELL SCORE; MARKER ASSISTED SELECTION; GENOME-WIDE ASSOCIATION; BOVINE MAMMARY-GLAND; CLINICAL MASTITIS; MILK-PRODUCTION; EXPRESSION; CATTLE; GENETICS; POLYMORPHISMS;
D O I
10.3390/vetsci10010035
中图分类号
S85 [动物医学(兽医学)];
学科分类号
0906 ;
摘要
Simple Summary Identification of markers to include in breeding plans is necessary in order to develop disease resistance to infectious diseases utilizing genetic control approaches. Recent studies used genome-wide association analysis to find new genes primarily responsible for the mastitis susceptibility of dairy cattle. Results, however, did not entirely persuade us that these genes were good candidates because we were unable to corroborate previously discovered SNP variants or genomic areas. In this study, SNPs linked to mastitis resistance/susceptibility were discovered in the RASGRP1, NFkB, CHL1, MARCH3, PDGFD, MAST3, EPS15L1, C1QTNF3, CD46, COX18, NEURL1, PPIE, and PTX3 genes by PCR-DNA sequencing in Holstein and Montbeliarde cows with and without mastitis. The mRNA levels of these indicators also varied between healthy and affected dairy cows. Therefore, it may be useful to discover potential genes linked to mastitis susceptibility to improve the effectiveness of animal selection for innate resistance. A major factor in the propagation of an infectious disease is host genetics. In this study, 180 dairy cows (90 of each breed: Holstein and Montbeliarde) were used. Each breed's tested dairy cows were divided into two groups of comparable size (45 cows each), mastitis-free and mastitis-affected groups. Each cow's jugular vein was punctured to obtain blood samples for DNA and RNA extraction. In the examined Holstein and Montbeliarde dairy cows, single nucleotide polymorphisms (SNPs) related with mastitis resistance/susceptibility were found in the RASGRP1, NFkB, CHL1, MARCH3, PDGFD, MAST3, EPS15L1, C1QTNF3, CD46, COX18, NEURL1, PPIE, and PTX3 genes. Chi-square analysis of identified SNPs revealed a significant difference in gene frequency between mastitic and healthy cows. Except for CHL1, mastitic dairy cows of two breeds had considerably higher mRNA levels of the examined genes than did healthy ones. Marker-assisted selection and monitoring of dairy cows' susceptibility to mastitis may be accomplished through the use of discovered SNPs and changes in the gene expression profile of the studied genes. These findings also point to a possible method for reducing mastitis in dairy cows through selective breeding of animals using genetic markers linked to an animal's ability to resist infection.
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页数:16
相关论文
共 72 条
[51]   Gene Polymorphisms: The Keys for Marker Assisted Selection and Unraveling Core Regulatory Pathways for Mastitis Resistance [J].
Pighetti, Gina M. ;
Elliott, A. A. .
JOURNAL OF MAMMARY GLAND BIOLOGY AND NEOPLASIA, 2011, 16 (04) :421-432
[52]   The complement in milk and defense of the bovine mammary gland against infections [J].
Rainard, P .
VETERINARY RESEARCH, 2003, 34 (05) :647-670
[53]   The cost of clinical mastitis in the first 30 days of lactation: An economic modeling tool [J].
Rollin, E. ;
Dhuyvetter, K. C. ;
Overton, M. W. .
PREVENTIVE VETERINARY MEDICINE, 2015, 122 (03) :257-264
[54]   Genetics of resistance to mastitis in dairy cattle [J].
Rupp, R ;
Boichard, D .
VETERINARY RESEARCH, 2003, 34 (05) :671-688
[55]   DNA SEQUENCING WITH CHAIN-TERMINATING INHIBITORS [J].
SANGER, F ;
NICKLEN, S ;
COULSON, AR .
PROCEEDINGS OF THE NATIONAL ACADEMY OF SCIENCES OF THE UNITED STATES OF AMERICA, 1977, 74 (12) :5463-5467
[56]   Host-response patterns of intramammary infections in dairy cows [J].
Schukken, Ynte H. ;
Guenther, J. ;
Fitzpatrick, J. ;
Fontaine, M. C. ;
Goetze, L. ;
Holst, O. ;
Leigh, J. ;
Petzl, W. ;
Schuberth, H. -J. ;
Sipka, A. ;
Smith, D. G. E. ;
Quesnell, R. ;
Watts, J. ;
Yancey, R. ;
Zerbe, H. ;
Gurjar, A. ;
Zadoks, R. N. ;
Seyfert, H. -M. .
VETERINARY IMMUNOLOGY AND IMMUNOPATHOLOGY, 2011, 144 (3-4) :270-289
[57]   Production effects related to mastitis and mastitis economics in dairy cattle herds [J].
Seegers, H ;
Fourichon, C ;
Beaudeau, F .
VETERINARY RESEARCH, 2003, 34 (05) :475-491
[58]   Mutagenesis Screen Identifies agtpbp1 and eps15L1 as Essential for T lymphocyte Development in Zebrafish [J].
Seiler, Christoph ;
Gebhart, Nichole ;
Zhang, Yong ;
Shinton, Susan A. ;
Li, Yue-sheng ;
Ross, Nicola L. ;
Liu, Xingjun ;
Li, Qin ;
Bilbee, Alison N. ;
Varshney, Gaurav K. ;
LaFave, Matthew C. ;
Burgess, Shawn M. ;
Balciuniene, Jorune ;
Balciunas, Darius ;
Hardy, Richard R. ;
Kappes, Dietmar J. ;
Wiest, David L. ;
Rhodes, Jennifer .
PLOS ONE, 2015, 10 (07)
[59]  
Socol C. T., 2015, Scientific Papers: Animal Science and Biotechnologies, V48, P95
[60]   Quantitative trait loci for clinical mastitis on chromosomes 2, 6, 14 and 20 in Norwegian Red cattle [J].
Sodeland, M. ;
Kent, M. P. ;
Olsen, H. G. ;
Opsal, M. A. ;
Svendsen, M. ;
Sehested, E. ;
Hayes, B. J. ;
Lien, S. .
ANIMAL GENETICS, 2011, 42 (05) :457-465