Analyze Diet

Animal genetics.

Periodical
Genetics
Zoology
Animals
Publisher:
Published by Blackwell Scientific Publications for the International Society for Animal Blood Group Research,. Oxford, England : Wiley-Blackwell
Frequency: Bimonthly,
Country: England
Language: English
Author(s):
International Society for Animal Blood Group Research., International Society for Animal Genetics.
Start Year:1986 -
ISSN:
0268-9146 (Print)
1365-2052 (Electronic)
0268-9146 (Linking)
Impact Factor
2.4
2022
NLM ID:8605704
(DNLM):SR0056566(s)
(OCoLC):13459823
Coden:ANGEE3
LCCN:sf 93095318
Classification:W1 AN228P
Single nucleotide polymorphisms in the equine transferrin gene.
Animal genetics    December 28, 1999   Volume 30, Issue 6 439-443 doi: 10.1046/j.1365-2052.1999.00546.x
Brandon RB, Giffard JM, Bell K.Single nucleotide polymorphisms (SNPs) in exons 13, 15 and 16 of equine transferrin for common, rare and mutant variants were investigated. Compared with previous work a further 13 SNPs have been identified, allowing for the two previously identified clades to be subdivided into 11 groups. A combination of one or more of eight SNPs can be used to classify the equine variants into these 11 groups, since most are co-inherited. Putative sites of glycosylation in exons 13 and 16 showed no polymorphism, suggesting that presence or absence of sugar moieties does not lead to electrophoretic variation...
Report of the International Equine Gene Mapping Workshop: male linkage map.
Animal genetics    December 3, 1999   Volume 30, Issue 5 341-354 doi: 10.1046/j.1365-2052.1999.00510.x
Guérin G, Bailey E, Bernoco D, Anderson I, Antczak DF, Bell K, Binns MM, Bowling AT, Brandon R, Cholewinski G, Cothran EG, Ellegren H, Förster M....The goal of the First International Equine Gene Mapping Workshop, held in 1995, was the construction of a low density, male linkage map for the horse. For this purpose, the International Horse Reference Family Panel (IHRFP) was established, consisting of 12 paternal half-sib families with 448 half-sib offspring provided by 10 laboratories. Blood samples were collected and DNA extracted in each laboratory and sent to the Lexington laboratory (KY, USA) for dispatch in aliquots to 14 typing laboratories. In total, 161 markers (144 microsatellites, seven blood groups and 10 proteins) were tested f...
Equine dinucleotide repeat loci COR041-COR060.
Animal genetics    September 1, 1999   Volume 30, Issue 4 320-321 doi: 10.1046/j.1365-2052.1999.00445-4.x
Ruth LS, Hopman TJ, Schug MD, Aquadro CF, Bowling AT, Murray JD, Caetano AR, Antczak DF.No abstract available
Equine dinucleotide repeat loci COR021-COR040.
Animal genetics    August 12, 1999   Volume 30, Issue 3 235-237 doi: 10.1046/j.1365-2052.1999.00404-16.x
Murphie AM, Hopman TJ, Schug MD, Aquadro CF, Bowling AT, Murray JD, Caetano AR, Antczak DF.No abstract available
Physical mapping of ten equine dinucleotide repeat microsatellites.
Animal genetics    August 12, 1999   Volume 30, Issue 3 235 doi: 10.1046/j.1365-2052.1999.00404-15.x
Lear TL, Brandon R, Bell K.No abstract available
Equine dinucleotide repeat loci COR001-COR020.
Animal genetics    August 12, 1999   Volume 30, Issue 3 225-226 doi: 10.1046/j.1365-2052.1999.00404.x
Hopman TJ, Han EB, Story MR, Schug MD, Aquadro CF, Bowling AT, Murray JD, Caetano AR, Antczak DF.No abstract available
Phylogenetic relationships of Cheju horses to other horse breeds as determined by mtDNA D-loop sequence polymorphism.
Animal genetics    June 22, 1999   Volume 30, Issue 2 102-108 doi: 10.1046/j.1365-2052.1999.00419.x
Kim KI, Yang YH, Lee SS, Park C, Ma R, Bouzat JL, Lewin HA.Historical records suggest that horses inhabiting the island of Cheju in Korea are descendants of Mongolian horses introduced in 1276. Other studies, however, suggest that horses may have been present on the island prior to the Mongolian introduction. To determine the origin of the Cheju horses we used a phylogenetic analysis of sequences of the mitochondrial DNA (mtDNA) D-loop region, including tRNA Pro and parts of tRNA thr and tRNA Phe sequences (1102-bp excluding the tandem repeat region). Maximum parsimony and neighbor-joining trees were constructed using sequences determined for seven Ch...
Twelve equine dinucleotide repeats at microsatellite loci UCDEQ304, UCDEQ380, UCDEQ387, UCDEQ411, UCDEQ439, UCDEQ440, UCDEQ455, UCDEQ457, UCDEQ464, UCDEQ465, UCDEQ482 and UCDEQ497.
Animal genetics    March 2, 1999   Volume 30, Issue 1 69-70 doi: 10.1046/j.1365-2052.1999.00323-5.x
Eggleston-Stott ML, DelValle A, Bautista M, Dileanis S, Wictum E.No abstract available
Five equine dinucleotide microsatellite loci HTG17, HTG20, HTG21, HTG28 and HTG31.
Animal genetics    March 2, 1999   Volume 30, Issue 1 70-71 doi: 10.1046/j.1365-2052.1999.00323-6.x
Lindgren G, Persson H, Ellegren H.No abstract available
Genetic polymorphisms of equine microsatellite loci: TKY16, TKY19 and TKY21.
Animal genetics    March 2, 1999   Volume 30, Issue 1 68-69 doi: 10.1046/j.1365-2052.1999.00323-4.x
Kakoi H, Tozaki T, Hirota K, Mashima S.No abstract available
A synteny map of the horse genome comprised of 240 microsatellite and RAPD markers.
Animal genetics    March 2, 1999   Volume 30, Issue 1 1-9 doi: 10.1046/j.1365-2052.1999.00377.x
Shiue YL, Bickel LA, Caetano AR, Millon LV, Clark RS, Eggleston ML, Michelmore R, Bailey E, Guérin G, Godard S, Mickelson JR, Valberg SJ, Murray JD....To generate a domestic horse genome map we integrated synteny information for markers screened on a somatic cell hybrid (SCH) panel with published information for markers physically assigned to chromosomes. The mouse-horse SCH panel was established by fusing pSV2neo transformed primary horse fibroblasts to either RAG or LMTk mouse cells, followed by G418 antibiotic selection. For each of the 108 cell lines of the panel, we defined the presence or absence of 240 genetic markers by PCR, including 58 random amplified polymorphic DNA (RAPD) markers and 182 microsatellites. Thirty-three syntenic gr...
Eight new equine dinucleotide repeat microsatellites at the NVHEQ26, NVHEQ29, NVHEQ31, NVHEQ40, NVHEQ43, NVHEQ90, NVHEQ98 and NVHEQ100 loci.
Animal genetics    January 12, 1999   Volume 29, Issue 6 470 
Røed KH, Midthjell L, Bjørnstad G.No abstract available
Fourteen new polymorphic equine microsatellites.
Animal genetics    January 12, 1999   Volume 29, Issue 6 469-470 
George LA, Miller LM, Valberg SJ, Mickelson JR.No abstract available
Mitochondrial control region and 12S rRNA variation in Przewalski’s horse (Equus przewalskii).
Animal genetics    January 12, 1999   Volume 29, Issue 6 456-459 doi: 10.1046/j.1365-2052.1998.296380.x
Oakenfull EA, Ryder OA.Variation in the control region and the 12S rRNA gene of all surviving mitochondrial lineages of Przewalski's horse was investigated. Variation is low despite the present day population being descended from 13 individuals probably representing animals from three different regions of its range. Phylogenetic comparison of these sequences, with sequences for the domestic horse, does not resolve the ancestral status of either horse.
Cloning and characterization of the equine F18 gene, which has a novel exon.
Animal genetics    November 4, 1998   Volume 29, Issue 5 381-384 doi: 10.1046/j.1365-2052.1998.295356.x
Tozaki T, Hirota K, Mashima S, Tomita M, Mukoyama H.A genomic clone isolated from an equine genomic library probed with an oligonucleotide (CAG)10 showed high sequence similarity to the human F18 gene and was tentatively named equine F18 gene. Because the human F18 gene is expressed in many tissues, we examined whether this equine clone was also expressed in equine tissues. The cDNA encoding equine F18 was obtained by the reverse transcriptase-polymerase chain reaction (RT-PCR) from equine thymus. The nucleotide sequence of the equine F18 cDNA (1940 bp) was determined and contained both the ATG initiation codon and a poly(A) sequence. The cDNA ...
Six new cosmid derived and physically mapped equine dinucleotide repeat microsatellites.
Animal genetics    August 28, 1998   Volume 29, Issue 3 236-238 doi: 10.1046/j.1365-2052.1998.00236.x
Marti E, Breen M, Fischer P, Swinburne J, Binns MM.No abstract available
Characterization of 24 equine microsatellite loci.
Animal genetics    August 12, 1998   Volume 29, Issue 2 153-156 
van Haeringen WA, van de Goor LH, van der Hout N, Lenstra JA.No abstract available
Equine dinucleotide repeat polymorphisms at loci ASB 21, 23, 25 and 37-43.
Animal genetics    July 31, 1998   Volume 29, Issue 1 67 
Irvin Z, Giffard J, Brandon R, Breen M, Bell K.No abstract available
Frequency of the SCID gene among Arabian horses in the USA.
Animal genetics    July 31, 1998   Volume 29, Issue 1 41-42 doi: 10.1046/j.1365-2052.1998.00237.x
Bernoco D, Bailey E.Severe combined immunodeficiency disease (SCID) of horses is an autosomal, recessive hereditary disease occurring among Arabian horses. The genetic defect responsible for this disease was recently identified as a 5-basepair deletion in the gene encoding DNA-protein kinase catalytic subunit (DNA-PKcs). Horses with one copy of the gene appear normal, while horses with two copies of the gene manifest the disease. The present report describes a PCR-based test for detection of the gene defect and the results from testing 250 randomly selected Arabian horses. The frequency of SCID gene carriers was ...
Comparisons of three probability formulae for parentage exclusion.
Animal genetics    June 6, 1998   Volume 28, Issue 6 397-400 doi: 10.1111/j.1365-2052.1997.00186.x
Jamieson A, Taylor SC.Three general formulae calibrate the average capability of marker systems to dispute falsely reported pedigree records in uniparous species. The most familiar exclusion formula applies to paternity, although the same formula applies equally to maternity. Another formula faults the relationship of a single offspring with its putative parent; for example, where the genotype of the other parent is not available. The remaining formulae excludes both of the falsely recorded parents of a substituted offspring. Simplified forms of the three general formulae facilitate the calculation of maximal avera...
Characterization of twelve new horse microsatellite loci: AHT12-AHT23.
Animal genetics    May 20, 1998   Volume 28, Issue 6 453 doi: 10.1111/j.1365-2052.1997.tb03289.x
Swinburne JE, Marti E, Breen M, Binns MM.No abstract available
A single base transversion in the flanking region of an equine microsatellite locus affects amplification of one allele.
Animal genetics    May 20, 1998   Volume 28, Issue 6 438-440 doi: 10.1111/j.1365-2052.1997.00188.x
Eggleston-Stott ML, Delvalle A, Dileanis S, Wictum E, Bowling AT.The equine dinucleotide microsatellite HMS7 is part of a microsatellite panel utilized in a parentage verification programme at the Veterinary Genetics Laboratory (Davis, California, USA). Apparent non-Mendelian inheritance was noted when a Quarter Horse mare was excluded as the parent of two offspring based on analysis of the HMS7 locus. The mare's DNA type qualified her as a parent of the offspring at an additional 20 microsatellite loci. The three animals appeared homozygous for HMS7 with each possessing an allele different from that of the other two animals. Polymerase chain reaction prime...
Nine equine dinucleotide repeats at microsatellite loci UCDEQ136, UCDEQ405, UCDEQ412, UCDEQ425, UCDEQ437, UCDEQ467, UCDEQ487, UCDEQ502 and UCDEQ505.
Animal genetics    November 18, 1997   Volume 28, Issue 5 370-371 
Eggleston-Stott ML, DelValle A, Bautista M, Dileanis S, Wictum E, Bowling AT.No abstract available
Equine dinucleotide repeat loci LEX049-LEX063.
Animal genetics    November 18, 1997   Volume 28, Issue 5 378 doi: 10.1111/j.1365-2052.1997.tb03281.x
Coogle L, Bailey E.No abstract available
Genetic relationship between equine apolipoproteins A4 and A1.
Animal genetics    August 1, 1997   Volume 28, Issue 4 306-307 doi: 10.1111/j.1365-2052.1997.00146.x
Kakoi H, Gawahara H.Genetic polymorphism of equine apolipoprotein (APO) A4 was investigated using two-dimensional electrophoresis in four horse breeds, including Japanese native horses. A linkage relationship between the equine APOA4 and APOA1 structural loci was assumed from the segregation data of these loci in one family line of the Japanese Hokkaido native breed.
Equine dinucleotide repeat loci LEX034-LEX048.
Animal genetics    August 1, 1997   Volume 28, Issue 4 309 
Coogle L, Reid R, Bailey E.No abstract available
Validation of microsatellite markers for routine horse parentage testing.
Animal genetics    August 1, 1997   Volume 28, Issue 4 247-252 doi: 10.1111/j.1365-2052.1997.00123.x
Bowling AT, Eggleston-Stott ML, Byrns G, Clark RS, Dileanis S, Wictum E.A parallel testing of 4803 routine Quarter Horse parentage cases, using 15 loci of blood group and protein polymorphisms (blood typing) and 11 loci of dinucleotide repeat microsatellites (DNA typing), validated DNA markers for horse pedigree verification. For the 26 loci, taken together, the theoretical effectiveness of detecting incorrect parentage was 99.999%, making it extremely unlikely that false parentage would fail to be recognized. The tests identified incorrect parentage assignment for 95 offspring (2% of cases). Despite fewer loci, DNA typing was as effective as blood typing and, in ...
Three newly detected alloantigens in the U blood group system of horses.
Animal genetics    August 1, 1997   Volume 28, Issue 4 313-314 
Nogaj A, Duniec MJ, Słota E, Duniec M.No abstract available
Linkage of the gene for equine combined immunodeficiency disease to microsatellite markers HTG8 and HTG4; synteny and FISH mapping to ECA9.
Animal genetics    August 1, 1997   Volume 28, Issue 4 268-273 doi: 10.1111/j.1365-2052.1997.00152.x
Bailey E, Reid RC, Skow LC, Mathiason K, Lear TL, McGuire TC.Equine combined immunodeficiency disease (CID) is caused by homozygosity for an autosomal recessive gene. To identify linked markers for the disease, we studied a family segregating for the equine CID gene. A stallion and 19 of his CID-affected offspring were tested for marker segregation at 23 microsatellite DNA loci. His CID-affected offspring inherited only one of his two alleles at the HTG8 and HTG4 loci, namely HTG8-186 and HTG4-124, respectively. Lod scores for linkage to the CID gene using a theta of 0.01 were 5.34 for HTG8 and 2.37 for HTG4. The apparent genotypes also suggested linkag...
Sixteen new polymorphic equine microsatellites.
Animal genetics    February 1, 1997   Volume 28, Issue 1 69-70 
Meyer AH, Valberg SJ, Hillers KR, Schweitzer JK, Mickelson JR.No abstract available