A male linkage map of the cattle (Bos taurus) genome. 1996

R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
Department of Animal Sciences, University of Illinois at Urbana-Champaign 61801, USA.

A male linkage map of the cattle (Bos taurus) genome was constructed using nine large half-sib families. The map consists of 269 loci, of which 249 are microsatellites and 20 are structural genes. Among the 249 microsatellites, 140 are markers selected from other maps and 98 are new assignments. Chromosome assignment were established for 35 new markers by somatic cell hybrid analysis, of which 26 were confirmed by linkage analysis. Genome coverage is 1975 cM contained within terminal markers on all 29 autosomes. The average distance between adjacent loci is 9.7 cM, with 72.1% of the map intervals < or = 15 cM and 4.9% of the intervals > or = 25 cM. The inclusion of mapped markers permitted integration and comparisons with other maps, facilitating the identification of discrepancies in chromosome assignment, gene order, and map distance. The inclusion of Type I and blood group markers in the map was useful for comparative mapping, revealing possible blood group orthologies between humans and cattle. The map generated will serve as a useful tool for comparative mapping, mapping of quantitative trait loci and marker assisted selection.

UI MeSH Term Description Entries
D008040 Genetic Linkage The co-inheritance of two or more non-allelic GENES due to their being located more or less closely on the same CHROMOSOME. Genetic Linkage Analysis,Linkage, Genetic,Analyses, Genetic Linkage,Analysis, Genetic Linkage,Genetic Linkage Analyses,Linkage Analyses, Genetic,Linkage Analysis, Genetic
D008297 Male Males
D002417 Cattle Domesticated bovine animals of the genus Bos, usually kept on a farm or ranch and used for the production of meat or dairy products or for heavy labor. Beef Cow,Bos grunniens,Bos indicus,Bos indicus Cattle,Bos taurus,Cow,Cow, Domestic,Dairy Cow,Holstein Cow,Indicine Cattle,Taurine Cattle,Taurus Cattle,Yak,Zebu,Beef Cows,Bos indicus Cattles,Cattle, Bos indicus,Cattle, Indicine,Cattle, Taurine,Cattle, Taurus,Cattles, Bos indicus,Cattles, Indicine,Cattles, Taurine,Cattles, Taurus,Cow, Beef,Cow, Dairy,Cow, Holstein,Cows,Dairy Cows,Domestic Cow,Domestic Cows,Indicine Cattles,Taurine Cattles,Taurus Cattles,Yaks,Zebus
D002874 Chromosome Mapping Any method used for determining the location of and relative distances between genes on a chromosome. Gene Mapping,Linkage Mapping,Genome Mapping,Chromosome Mappings,Gene Mappings,Genome Mappings,Linkage Mappings,Mapping, Chromosome,Mapping, Gene,Mapping, Genome,Mapping, Linkage,Mappings, Chromosome,Mappings, Gene,Mappings, Genome,Mappings, Linkage
D005819 Genetic Markers A phenotypically recognizable genetic trait which can be used to identify a genetic locus, a linkage group, or a recombination event. Chromosome Markers,DNA Markers,Markers, DNA,Markers, Genetic,Genetic Marker,Marker, Genetic,Chromosome Marker,DNA Marker,Marker, Chromosome,Marker, DNA,Markers, Chromosome
D005838 Genotype The genetic constitution of the individual, comprising the ALLELES present at each GENETIC LOCUS. Genogroup,Genogroups,Genotypes
D000818 Animals Unicellular or multicellular, heterotrophic organisms, that have sensation and the power of voluntary movement. Under the older five kingdom paradigm, Animalia was one of the kingdoms. Under the modern three domain model, Animalia represents one of the many groups in the domain EUKARYOTA. Animal,Metazoa,Animalia
D015698 Genomic Library A form of GENE LIBRARY containing the complete DNA sequences present in the genome of a given organism. It contrasts with a cDNA library which contains only sequences utilized in protein coding (lacking introns). Genome Library,Genome Libraries,Genomic Libraries,Libraries, Genome,Libraries, Genomic,Library, Genome,Library, Genomic
D016133 Polymerase Chain Reaction In vitro method for producing large amounts of specific DNA or RNA fragments of defined length and sequence from small amounts of short oligonucleotide flanking sequences (primers). The essential steps include thermal denaturation of the double-stranded target molecules, annealing of the primers to their complementary sequences, and extension of the annealed primers by enzymatic synthesis with DNA polymerase. The reaction is efficient, specific, and extremely sensitive. Uses for the reaction include disease diagnosis, detection of difficult-to-isolate pathogens, mutation analysis, genetic testing, DNA sequencing, and analyzing evolutionary relationships. Anchored PCR,Inverse PCR,Nested PCR,PCR,Anchored Polymerase Chain Reaction,Inverse Polymerase Chain Reaction,Nested Polymerase Chain Reaction,PCR, Anchored,PCR, Inverse,PCR, Nested,Polymerase Chain Reactions,Reaction, Polymerase Chain,Reactions, Polymerase Chain

Related Publications

R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
April 2009, Animal genetics,
R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
March 2021, The Journal of heredity,
R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
November 2021, The Journal of heredity,
R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
January 2020, Mitochondrial DNA. Part B, Resources,
R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
January 2016, Mitochondrial DNA. Part A, DNA mapping, sequencing, and analysis,
R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
August 2015, BMC genomics,
R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
April 2009, BMC genomics,
R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
April 2011, Animal reproduction science,
R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
October 2011, Theriogenology,
R Z Ma, and J E Beever, and Y Da, and C A Green, and I Russ, and C Park, and D W Heyen, and R E Everts, and S R Fisher, and K M Overton, and A J Teale, and S J Kemp, and H C Hines, and G Guérin, and H A Lewin
September 2019, Journal of dairy science,
Copied contents to your clipboard!