PHYSICALLY MAPPED, COSMID-DERIVED MICROSATELLITE MARKERS AS ANCHOR LOCI ON BOVINE CHROMOSOMES

被引:93
作者
TOLDO, SS
FRIES, R
STEFFEN, P
NEIBERGS, HL
BARENDSE, W
WOMACK, JE
HETZEL, DJS
STRANZINGER, G
机构
[1] ETH ZENTRUM,DEPT ANIM SCI,CH-8092 ZURICH,SWITZERLAND
[2] TEXAS A&M UNIV SYST,DEPT VET PATHOL,COLL STN,TX 77843
[3] UNIV QUEENSLAND,CSIRO,DIV TROP ANIM PROD,GEHRMANN LABS,ST LUCIA,QLD 4072,AUSTRALIA
关键词
D O I
10.1007/BF00357796
中图分类号
Q5 [生物化学]; Q7 [分子生物学];
学科分类号
071010 ; 081704 ;
摘要
To identify physical and genetic anchor loci on bovine chromosomes, 13 cosmids, obtained after the screening of partial bovine cosmid libraries with the (CA)(n) microsatellite motif, were mapped by fluorescence in situ hybridization (FISH). Eleven cosmid probes yielded a specific signal on one of the bovine chromosomes and identified the following loci: D5S2, D5S3, D6S3, D8S1, D11S5, D13S1, D16S5, D17S2, D19S2, D19S3, D21S8. Two cosmids produced centromeric signals on many chromosomes. The microsatellite-containing regions were subcloned and sequenced. The sequence information revealed that the two centromeric cosmids were derived from bovine satellites 1.723 and 1.709, respectively. A cosmid located in the subtelomeric region of Chromosome (Chr) 17 (D17S2) had features of a chromosome-specific satellite. Primers were designed for eight of the nonsatellite cosmids, and seven of these microsatellites were polymorphic with between three and eight alleles on a set of outbred reference families. The polymorphic and chromosomally mapped loci can now be used to physically anchor other bovine polymorphic markers by linkage analysis. The microsatellite primers were also applied to DNA samples of a previously characterized panel of somatic hybrid cell lines, allowing the assignment of seven microsatellite loci to defined syntenic groups. These assignments confirmed earlier mapping results, revealed a probable case of false synteny, and placed two formerly unassigned syntenic groups on specific chromosomes.
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页码:720 / 727
页数:8
相关论文
共 35 条
[1]  
BARENDSE W, 1993, IN PRESS GENOMICS
[2]   ISOLATION AND INITIAL CHARACTERIZATION OF A LARGE REPEAT SEQUENCE ELEMENT SPECIFIC TO MOUSE CHROMOSOME-8 [J].
BOYLE, AL ;
WARD, DC .
GENOMICS, 1992, 12 (03) :517-525
[3]   The mouse genome: an overview [J].
Chapman, Verne M. ;
Nadeau, Joseph H. .
CURRENT OPINION IN GENETICS & DEVELOPMENT, 1992, 2 (03) :406-411
[4]   STATISTICAL DECISION RULES CONCERNING SYNTENY OR INDEPENDENCE BETWEEN MARKERS [J].
CHEVALET, C ;
CORPET, F .
CYTOGENETICS AND CELL GENETICS, 1986, 43 (3-4) :132-139
[5]   HIGH-EFFICIENCY VECTORS FOR COSMID MICROCLONING AND GENOMIC ANALYSIS [J].
EVANS, GA ;
LEWIS, K ;
ROTHENBERG, BE .
GENE, 1989, 79 (01) :9-20
[6]   HIDDEN MESSAGES IN GENETIC MAPS [J].
FARR, CJ ;
GOODFELLOW, PN .
SCIENCE, 1992, 258 (5079) :49-49
[7]   THE BOVINE GENOME MAP [J].
FRIES, R ;
EGGEN, A ;
WOMACK, JE .
MAMMALIAN GENOME, 1993, 4 (08) :405-428
[8]  
FRIES R, 1993, ANIM GENET, V24, P111, DOI 10.1111/j.1365-2052.1993.tb00250.x
[9]   MAPPING OF BOVINE CYTOKERATIN SEQUENCES TO 4 DIFFERENT SITES ON 3 CHROMOSOMES [J].
FRIES, R ;
THREADGILL, DW ;
HEDIGER, R ;
GUNAWARDANA, A ;
BLESSING, M ;
JORCANO, JL ;
STRANZINGER, G ;
WOMACK, JE .
CYTOGENETICS AND CELL GENETICS, 1991, 57 (2-3) :135-141
[10]   MAPPING OF THE BETA-LACTOGLOBULIN GENE AND OF AN IMMUNOGLOBULIN-M HEAVY CHAIN-LIKE SEQUENCE TO HOMOEOLOGOUS CATTLE, SHEEP, AND GOAT CHROMOSOMES [J].
HAYES, HC ;
PETIT, EJ .
MAMMALIAN GENOME, 1993, 4 (04) :207-210