An estimation of the genetic distance between Polish Red and other Red Cattle breeds on the basis of selected milk protein loci

• Autorzy: Zaton-Dobrowolska M. , Citek J. , Filistowicz A. , Rehout V. , Szulc T.
• Języki publikacji: EN

Abstrakty

EN

The material for the study were six populations of Red Cattle, including three samples of the Polish Red cattle population (PC’69, n = 203, PC’82, n = 261 and PC’96, n = 313) and one each of the Danish Red (DC, n = 169), German Red (NC, n = 510) and Czech Red (CC, n = 14). DNA was isolated from blood, according to the method by Gemmell and Akiyama (1996). All individuals were genotyping for the following proteins: a S1-casein, b-casein, k-casein and b-lactoglobulin. The frequency of alleles was estimate and was used for the estimation of the genetic distance between populations. Using the PHYLIP ver. 3.5c software the genetic distance was determined according to 1) Nei, 2) Cavali-Sforza and 3) Reynolds. All the populations demonstrated a similar distribution of allele frequencies at individual loci. Only the Czech Red showed different tendencies as regards b- and k-casein and b -lactoglobulin. This may have been the effect of the smaller population size as compared to the remaining breeds. Genetic distances estimated by these three using methods were similar. The smallest genetic distance was observed between populations PC’96 and NC (0.0007). In turn, the highest value was obtained between population DC and CC (0.0776). In the case of the genetic distance calculated according to the formulas by Cavalli-Sforza and Reynolds, the values obtained were higher then value of genetic distance estimated by Nei. The comparatively low values for the genetic distance obtained in the present studies may indicate that the breeds analysed originate from a common ancestor or lived on neighbouring geographical regions, what could lead to a frequent exchange of genes. The considerable similarity between those breeds could also be caused by a similarly conducted selection, based on similar assumptions (similar type of production). Those populations demonstrate similar gene pools what may be used for common preserve breeding programmes, which would decrease the danger of inbreeding. An analysis of the data collected over 30 years for the three populations of the Polish Red cattle, renders it possible to conclude that the frequency of individual alleles of the proteins examined are subjected to a small but continuous change.

Słowa kluczowe

EN

estimation; Polish Red cattle breed; Red cattle breed; genetic distance; milk protein; polymorphism; cattle population

• Wydawca: -
• Czasopismo: Electronic Journal of Polish Agricultural Universities. Series Animal Husbandry
• Rocznik: 2006
• Tom: 09
• Numer: 2
• Opis fizyczny: http://www.ejpau.media.pl/volume9/issue2/art-10.html

Twórcy

autor

Zaton-Dobrowolska M.

• Agricultural University in Wroclaw, Kozuchowska 7, 51-631 Wroclaw, Poland

autor

Citek J.

autor

Filistowicz A.

autor

Rehout V.

autor

Szulc T.

Bibliografia

• Baranyi M., Bősze Z., Bucheberger J., Krause I., 1993. Genetic polymorphism of milk proteins in Hungarian Spotted and Hungarian Grey cattle: a possible new genetic variant of β-lactoglobulin. J. Dairy Sci. 76 (2), 630-636.
• Baranyi M., Bősze Z., Bucheberger J., Krause I., 1996. Genetic polymorphism of milk proteins in Hungarian cattle. Archiv für Tierz. 39 (5), 489-496.
• Bech A.M., Kristiansen K.R., 1990. Milk protein polymorphism in Danish dairy cattle and the influence of genetic variants on milk yield. J. Dairy Res. 57, 53-62.
• Chobotová E., Dobálová M., Foltys V., 1998. Genotypic frequencies of four pol-morphous systems of milk proteins in Slovakian Pied and Pinzgau Breeds. Czech J. Anim. Sci. 43 (11), 497-501.
• Čitek J., Antes R., 1996. Detection of the A and B alleles on κ-casein locus in the Bohemian Red strain. Anim. Prod. 41 (2), 49-51.
• Čitek J., Řehout V., Hajič F., Kosvanec K., Nebola M., Soch M., 1997a. Genotyping of milk proteins in Czech Red breed cattle and their hybrids. Agriculture 43 (7), 508-515.
• Čitek J., Řehout V., Hajič F., Kosvanec K., Nebola M., Soch M., 1997b. Genetic polymorphism of kappa-casein locus in Czech Pied and Black Pied cattle. Zivočisná Výroba 42 (1), 1-4.
• Čitek J., Řehout V., Trakovická A., Masková J., 1997c. Gnotypizace kappa-kaseinového lokusu u některých masných plemen skotu. Sborník Jihočeské Univerzity Zemĕdĕlské Fakulty v Českých Budĕjivicích, 2/14.
• Čitek J., Filistowicz A., Řehout V., Neubauerová V., 2000. Comparisona of growth hormone and kappa-casein gene polymorphism in Polish Red and German Red cattle breeds. J. Appl. Genet. 41 (3), 181-185.
• Dobicki A., Szulc T., Walawski K., Zachwieja A., 1996. Genetyczny polimorfizm białek mleka krów mięsnych [Milk protein genetic polimorphism in beef cattle]. Pr. Mater. Zootech. 6, 59-65 [in Polish].
• Erhardt G., 1996. Detection of a new k-casein variant in milk of Pinzgauer cattle. Anim. Genet. 27, 105-107.
• Erhardt G., Juszczak J., Panicke L., Krick-Saleck H., 1998. Genetic polymorphism of milk proteins in Polish Red cattle: a new genetic variant of b-lactoglobulin. J. Anim. Breed. Genet. 115, 63-71.
• Felenczak A., 1982, Genetic Polymorphism and the content of some milk protein fractions in the cattle breeds of southern Poland. Zesz. Nauk. AR Kraków, Zootech. 22, 175-191.
• Felsenstein J., 1993. PHYLIP (Phylogeny Inference Package), version 3.5c. Department of Genetics, University of Washington, Seattle.
• Gemmell N., Akiyama S., 1996. An efficient method for the extraction of DNA from vertebrates tissues. Trends Genet. 12, 338-339.
• Graml R., Pirchner F., 1984. Relation of genetic distance between cattle breeds and heterosis of resulting crosses. Anim. Blood Groups Biochem. Genet. 15, 173-180.
• Graml R., Ohmayer G., Pirchner F., Erhard L., Buchberger J., Mostageer A., 1986. Biochemical polymorphism in Egyptian Baladi cattle and their relationship with other breeds. Anim. Genet. 17, 61-76.
• Grosclaude F., Aupetit R.Y., Lefebvre J., Meriaux J.C., 1990. Essai d’analyse des relations génétiques entre les races bovines françaises à l’aide du polymorphisme biochimique. Genetic, Selection and Evolution, 22, 317-338.
• Ikonen T., Ruottinen O., Erhardt G., Ojala M., 1996. Allele frequencies of the major milk proteins in the Finnish Ayrshire and detection of a new k-casein variant. Anim. Genet. 27, 179-181.
• Juszczak J., Erhardt G., Kuczaj M., Ziemiński R., Panicke L., 2001. Zusammenhang zwischwen k-Casein und b-Lactoglobulin-Varianten mit der Milchleistung ind der nutzungsdauer von Rindern der Rassen Schwarzbuntes Rind und Polnisches Rotvieh. Archiv für Tierz. 44 (3), 239-249.
• Kamiński S., Zabolewicz T., 2000. Associations between bovine beta-lactoglobulin polymorphism within coding and regulatory sequences and milk performance traits. J. Appl. Genet. 41 (2), 91-99.
• Kidd K.K., Cavalli-Sforza L.L., 1974. The role of genetic drift in the differentiations of Icelandic and Norwegian cattle. Evolution 28, 381-395.
• Krzyżewski J., Strzałkowska N., Ryniewicz Z., 1998. Zwiazek między genetycznym polimorfizmem białek a wydajnoscia, składem chemicznym i parametrami technologicznymi mleka krów [Relationship between protein genetic polymorphism and yield, chemical composition, technological parameters of cattle milk]. Pr. Mater. Zootech. 52, 7-36 [in Polish].
• Medrano J.F., Aguilar-Cordova E., 1990. Polymerase chain reaction amplification of bovine beta-lactoglobulin genoic sequences and identification of genetic variants by RFLP analysis. Anim. Biotechnol. 1, 73.
• Michalak W., 1969. Hereditary polymorphism of milk proteins in some breeds of cattle raised in Poland. Part II. Biul. 15, ZHDZ PAN, 89-110.
• Mitra A., Schlee P., Balakirshnan C.R., Pirchner F., 1995. Polymorphisms at growth hormone and prolactin loci in Indian cattle and buffalo. J. Anim. Breed Genet. 112, 71-74.
• Moazami-Goudarzi K., Laloë D., Furet J.P., Grosclaude F., 1997. Analysis of genetic relationships between 10 cattle breeds with 17 microsatellites. Anim. Genet. 28, 338-345.
• Nebola M., Dvořák J., Szulc T., 1996. Kappa-casein gene polymorphism in cattle breeds in the Czech Republic and Poland. Anim. Prod. 41 (10), 429-431.
• Ng-Kwai-Hang K.F., Hayes J.F., Moxley J.E., Monardes H.G., 1984. Association of genetic variants of casein and milk serum proteins with milk, fat, and protein production by dairy cattle. J. Dairy Sci. 67 (4), 835-840.
• Oprzadek J., Dymnicki E., Zwierzchowski L., Łukaszewicz M., 1999. The effect of growth hormone (GH), k-casein (CASK) and b-lactoglobulin (BLG) genotypes on carcass traits in Fresian bulls. Anim. Sci. Papers and Reports 17 (3), 85-92.
• Řehout V., Čitek J., Masková J., 1998. Genetické distance mezi analyzovanými plemeny skotu. XVIII Genetics Days, Book of Abstracts, Czeskie Budziejovice, 169.
• Schlee P., Rottmann O., Buchberger J., Graml R., Aumann J, Binser R., Pirchner F., 1992. Die Milchproteingene des Fleckviehbullen “Haxl” und dessen Einfluss auf die Alle-lfrequenzen. Zuechtungskunde 64, 312-322.
• Strzałkowska N., Krzyżewski J., Ryniewicz Z., 1999. Zależnosc między polimorficzna forma beta-laktoglobuliny i systemem żywienia a dobowa wydajnoscia, składem chemicznym i parametrami technologicznymi mleka krów [Dependence between poly-morphic form beta-laktoglobulin and feeding system but daily yield, chemical composition and technological parameters of cattle milk]. Pr. Mater. Zootech. 54, 21-34 [in Polish].
• Strzałkowska N., Krzyżewski J., Ryniewicz Z., 2000. Wpływ genotypu betala-ktoglobuliny i kappa-kazeiny na wydajnosc, skład chemiczny i podstawowe parametry technologiczne mleka krów [Influence of beta-laktoglobulin genotype and kappa-casein on production yield, chemical composition and basic technological parameters of cattle milk]. Pr. Mater. Zootech. 56, 107-119 [in Polish].
• Uhrín P., Chrenek D., Vasíček D., Bauerová M., Bulla J., 1995. Genotyping of b-lacto-globulin gene in different breeds of cattle in Slovakia. Anim. Prod. 40 (2), 49-52.
• Zwierzchowski L., Łukaszewicz M., Dymnicki E., Oprzšdek J., 1998. Poymorphism of growth hormone, k-casein (CASK) and b-lactoglobulin (BLG) genes in growing Fresian cattle. Anim. Sci. Papers and Reports 16 (2), 61-68.