H. S. Sun
University of Wisconsin-Madison
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Publication
Featured researches published by H. S. Sun.
Mammalian Genome | 1997
W. Barendse; D. Vaiman; Stephen J. Kemp; Yoshikazu Sugimoto; S. M. Armitage; J. L. Williams; H. S. Sun; A. Eggen; Morris Agaba; S. A. Aleyasin; Mark Band; M. D. Bishop; J. Buitkamp; K. Byrne; F. Collins; L. Cooper; W. Coppettiers; B. Denys; R. D. Drinkwater; K. Easterday; C. Elduque; Sean Ennis; G. Erhardt; L. Ferretti; N. Flavin; Q. Gao; Michel Georges; R. Gurung; B. Harlizius; G. Hawkins
A cattle genetic linkage map was constructed which covers more than 95 percent of the bovine genome at medium density. Seven hundred and forty six DNA polymorphisms were genotyped in cattle families which comprise 347 individuals in full sibling pedigrees. Seven hundred and three of the loci are linked to at least one other locus. All linkage groups are assigned to chromosomes, and all are orientated with regards to the centromere. There is little overall difference in the lengths of the bull and cow linkage maps although there are individual differences between maps of chromosomes. One hundred and sixty polymorphisms are in or near genes, and the resultant genome-wide comparative analyses indicate that while there is greater conservation of synteny between cattle and humans compared with mice, the conservation of gene order between cattle and humans is much less than would be expected from the conservation of synteny. This map provides a basis for high-resolution mapping of the bovine genome with physical resources such as Yeast and Bacterial Artificial Chromosomes as well as providing the underpinning for the interpolation of information from the Human Genome Project.USDA-MARC family and data for validating this family. P. Creighton, C. Skidmore, T. Holm, and A. Georgoudis provided some validation data for the BOVMAP families. R. Fries, S. Johnson, S. Solinas Toldo, and A. Mezzelani kindly made some of their FISH assignments available before publication. We wish to thank all those researchers who kindly sent us probes and DNA primers.
Mammalian Genome | 1996
H. S. Sun; B. W. Kirkpatrick
Dinucleotide microsatellites are useful for gene mapping projects. Depending upon definition of conservation, published estimates of dinucleotide microsatellite conservation levels vary dramatically (30% to 100%). This study focused on well-characterized genes that contain microsatellites in the human genome. The objective was to examine the feasibility of developing microsatellite markers within genes on the basis of the assumption of microsatellite conservation across distantly related species. Eight genes (Gamma-actin, carcinoembryonic antigen, apolipoprotein A-II, cardiac beta myosin heavy chain, laminin B2 chain, MHC class I CD8 alpha chain, c-reactive protein, and retinoblastoma susceptibility protein) containing large dinucleotide repeat units (N ≥ 15), complete genomic structure information, and homologous gene sequences in a second species were selected. Heterologous primers were designed from conserved exon sequences flanking a microsatellite motif. PCR products from bovine and porcine genomic DNA were tested for the presence of microsatellite sequences by Southern blot hybridization with biotin-labeled (CA)12 oligonucleotides. Fragments containing microsatellites were cloned and sequenced. Homology was verified by sequence comparisons between human and corresponding bovine or porcine fragments. Four of sixteen (25%) cross-amplified PCR products contained dinucleotide repetitive sequences with repeat unit lengths of 5 to 23. Two dinucleotide repetitive sequences showed microsatellite length polymorphism, and an additional sequence displayed single-strand conformational polymorphism. Results from this study suggest that exploitation of conserved microsatellite sequences is a useful approach for developing specific genetic markers for comparative mapping purposes.
Mammalian Genome | 1996
H. S. Sun; James E. Womack; B. W. Kirkpatrick
Bovine x rodent somatic hybrid cells have been used to syntenically map three bovine genes homologous to loci on human Chromosome (Chr) 13. These three loci, fms-related tyrosine kinase gene (FLT), esterase D (ESD), and 5-hydroxytryptamine receptor 2 (HTR2; serotonin receptor subtype 2), were assigned to bovine Chr 12 (BTA12) with 91-95% concordance to the coagulation factor 10 (F10) locus. Along with a previously mapped BTA12 gene, retinoblastoma-1 (RBI), this conserved synteny group spans 178 cM on human Chr 13 (HSA13). Previous reports suggested homology between HSA13 and both BTA2 and BTA12. Results reported here extend the boundary of the HSA13-BTA12 comparative map, contradict the previous preliminary assignment of ESD to BTA2, and suggest instead that the q arm of HSA13 may be entirely conserved in BTA12.
Animal Genetics | 2009
H. S. Sun; M. R. Dentine; W. Barendse; B. W. Kirkpatrick
Animal Genetics | 2009
H. S. Sun; M. R. Dentine; B. W. Kirkpatrick
Animal Genetics | 2009
H. S. Sun; B. M. Huff; M. R. Dentine; B. W. Kirkpatrick
Journal of Animal Science | 1995
H. S. Sun; W. Barendse; B. W. Kirkpatrick
Animal Genetics | 2009
H. S. Sun; G. L. Hart; B. W. Kirkpatrick
Journal of Animal Science | 1995
H. S. Sun; W. Barendse; B. W. Kirkpatrick
Animal Genetics | 2009
H. S. Sun; M. R. Dentine; B. W. Kirkpatrick
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Commonwealth Scientific and Industrial Research Organisation
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