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
Rejection of MITF and MGF as the genes responsible for appaloosa coat colour patterns in horses.
Animal genetics    February 19, 2002   Volume 33, Issue 1 82-84 doi: 10.1046/j.1365-2052.2002.0742h.x
Terry RB, Bailey E, Lear T, Cothran EG.No abstract available
The cream dilution gene, responsible for the palomino and buckskin coat colours, maps to horse chromosome 21.
Animal genetics    December 12, 2001   Volume 32, Issue 6 340-343 doi: 10.1046/j.1365-2052.2001.00806.x
Locke MM, Ruth LS, Millon LV, Penedo MC, Murray JD, Bowling AT.The colour locus historically referred to as C in the horse is linked to microsatellites markers on horse chromosome 21. Preliminary results demonstrated linkage of Ccr, thought to be the cream dilution variant of the C locus, to HTG10. An analysis of horse chromosome 21 using additional families confirmed and established a group of markers linked to Ccr. This work also improved the resolution of previously reported linkage maps for this chromosome. Linkage analysis unambiguously produced the map order: SGCV16-(19.1 cM)-HTG10-(3.8 cM)-LEX60/COR73-(1.3 cM)-COR68-(4.5 cM)- Ccr-(11.9 cM)-LEX31. C...
Microsatellite diversity, pedigree relatedness and the contributions of founder lineages to thoroughbred horses.
Animal genetics    December 12, 2001   Volume 32, Issue 6 360-364 doi: 10.1046/j.1365-2052.2001.00785.x
Cunningham EP, Dooley JJ, Splan RK, Bradley DG.The thoroughbred (TB) horse is one of the oldest breeds of domestic animals, with pedigree records spanning three centuries. Because the population is essentially closed, there is concern about loss of genetic variation. Here we report two parallel analyses. In the first, genetic variation in the current population is measured using data from 13 microsatellite loci in 211 horses with relationships calculated based on allele sharing. In the second analysis, pedigree information is used to calculate genetic relationships between animals based on shared ancestry. These two measures of relationshi...
FISH assignment of two equine BAC clones containing SRY and ZFY.
Animal genetics    October 31, 2001   Volume 32, Issue 5 326-327 doi: 10.1046/j.1365-2052.2001.0730h.x
Hirota K, Piumi F, Sato F, Ishida N, Guérin G, Miura N, Hasegawa T.No abstract available
Genetic variation of the second exon of ELA-DRB genes in Argentine Creole horses.
Animal genetics    October 31, 2001   Volume 32, Issue 5 257-263 doi: 10.1046/j.1365-2052.2001.00779.x
Díaz S, Giovambattista G, Dulout FN, Peral-García P.Genetic variation in the equine leucocyte antigen-DRB (ELA-DRB) second exon was investigated using polymerase chain reaction (PCR) amplification, restriction fragment length polymorphism (RFLP) of PCR products (PCR-RFLP) and deoxyribonucleic acid (DNA) sequencing. Eight distinct PCR-RFLP patterns could be identified in the studied Argentine Creole (AC) horses. The number of observed patterns per individual ranged from four to six, thus confirming the presence of multiple DRB copies in AC horses. Three PCR-RFLP alleles and three new sequences were identified. The estimated rates of synonymous a...
Cytogenetic assignment and genetic characterization of the horse microsatellites, TKY4-18, TKY20, TKY22-24, TKY30-41 derived from a cosmid library.
Animal genetics    August 9, 2001   Volume 32, Issue 3 160-162 doi: 10.1046/j.1365-2052.2001.0723a.x
Hirota K, Tozaki T, Mashima S, Miura N.No abstract available
Characterization of equine microsatellite loci, TKY102-TKY112.
Animal genetics    June 26, 2001   Volume 32, Issue 2 117-119 doi: 10.1046/j.1365-2052.2001.0700h.x
Mashima S, Tozaki T, Swinburne J, Kakoi H, Binns M, Miura N.No abstract available
Polymorphism identification within 50 equine gene-specific sequence tagged sites.
Animal genetics    June 26, 2001   Volume 32, Issue 2 78-88 doi: 10.1046/j.1365-2052.2001.00738.x
Shubitowski DM, Venta PJ, Douglass CL, Zhou RX, Ewart SL.The continued discovery of polymorphisms in the equine genome will be important for future studies using genomic screens and fine mapping for the identification of disease genes. Segments of 50 equine genes were examined for variability in 10 different horse breeds using a pool-and-sequence method. We identified 11 single nucleotide polymorphisms (SNPs) in 9380 bp of sequenced exon, and 25 SNPs, six microsatellites, and one insertion/deletion in 16961 bp of sequenced intron. Of all genes studied 52% contained at least one polymorphism, and polymorphisms were found at an overall rate of 1/613 b...
Linked markers exclude KIT as the gene responsible for appaloosa coat colour spotting patterns in horses.
Animal genetics    June 26, 2001   Volume 32, Issue 2 98-101 doi: 10.1046/j.1365-2052.2001.00737.x
Terry RR, Bailey E, Bernoco D, Cothran EG.The appaloosa coat colour pattern of the horse is similar to that caused by the rump-white (Rw) gene in the mouse. In the mouse Rw colour pattern is the result of an inversion involving the proto-oncogene c-kit (KIT). Therefore, we investigated KIT as a candidate gene that encodes the appaloosa coat colour gene (Lp) in horses. KIT plays a critical role in haematopoiesis, gametogenesis, and melanogenesis and encodes a transmembrane tyrosine kinase receptor that belongs to the PDGF/CSF-1/c-KIT receptor subfamily. Half-sib families segregating for Lp were uninformative for a reported polymorphism...
Breed demarcation and potential for breed allocation of horses assessed by microsatellite markers.
Animal genetics    June 26, 2001   Volume 32, Issue 2 59-65 doi: 10.1046/j.1365-2052.2001.00705.x
Bjørnstad G, Røed KH.Population demarcation of eight horse breeds was investigated using genotype information of 306 horses from 26 microsatellite loci. The breeds include the indigenous Norwegian breeds Fjord Horse, Nordland/Lyngen Horse, Døle Horse and Coldblooded Trotter together with Icelandic Horse, Shetland Pony, Standardbred and Thoroughbred. Both phylogenetic analysis and a maximum likelihood method were applied to examine the potential for breed allocation of individual animals. The phylogenetic analysis utilizing simple allele sharing statistics revealed clear demarcation among the breeds; 95% of the in...
Base substitutions in the sequences flanking microsatellite markers HMS3 and ASB2 interfere with parentage testing in the Lipizzan horse.
Animal genetics    June 23, 2001   Volume 32, Issue 1 52 doi: 10.1046/j.1365-2052.2001.0647k.x
Achmann R, Huber T, Wallner B, Dovc P, Müller M, Brem G.No abstract available
Physical anchorage and orientation of equine linkage groups by FISH mapping BAC clones containing microsatellite markers.
Animal genetics    June 23, 2001   Volume 32, Issue 1 37-39 doi: 10.1046/j.1365-2052.2001.00715.x
Lindgren G, Swinburne JE, Breen M, Mariat D, Sandberg K, Guérin G, Ellegren H, Binns MM.A horse bacterial artificial chromosome (BAC) library was screened for 19 microsatellite markers from unassigned or non-oriented linkage groups. Clones containing 11 (AHT20, EB2E8, HMS45, LEX005, LEX014, LEX023, LEX044, TKY111, UCDEQ425, UCDEQ464 and VIASH21) of these were found, which were from eight different linkage groups. The BAC clones were used as probes in dual colour FISH to identify their precise chromosomal origin. The microsatellite markers are located on nine different horse chromosomes, four of which (ECA6, ECA25, ECA27 and ECA28) had no previously in situ assigned markers.
Equine dinucleotide repeat loci LEX071 through LEX078.
Animal genetics    November 22, 2000   Volume 31, Issue 4 286-287 doi: 10.1046/j.1365-2052.2000.00665.x
Bailey E, Skow L, Bernoco D, DelValle A, Scavone MD, Bowling AT, Murray JD.No abstract available
New polymorphism detected in the horse MC1R gene.
Animal genetics    November 22, 2000   Volume 31, Issue 4 289-290 doi: 10.1046/j.1365-2052.2000.00655.x
Wagner HJ, Reissmann M.No abstract available
TKY101: a highly polymorphic equine dinucleotide repeat locus.
Animal genetics    October 14, 2000   Volume 30, Issue 2 163 doi: 10.1046/j.1365-2052.1999.00382-3.x
Mashima S, Kakoi H, Tozaki T.No abstract available
Characterisation of 25 new physically mapped horse microsatellite loci: AHT24++-48.
Animal genetics    July 15, 2000   Volume 31, Issue 3 237-238 
Swinburne JE, Lockhart L, Aldridge V, Marti E, Breen M, Binns MM.No abstract available
The isolation and characterization of 34 equine microsatellite loci, TKY290-TKY323.
Animal genetics    July 15, 2000   Volume 31, Issue 3 234-236 
Tozaki T, Kakoi H, Mashima S, Hirota K, Hasegawa T, Ishida N, Miura N, Tomita M.No abstract available
The equine CD74 gene has a polymorphic (CAG)n repeat in the 5′-untranslated region.
Animal genetics    July 15, 2000   Volume 31, Issue 3 239-240 
Tozaki T, Mashima S, Miura N, Tomita M.No abstract available
Ten equine dinucleotide microsatellite repeats HTG18-19, HTG22-24, HTG26-27, HGT29-30 and HTG32.
Animal genetics    April 27, 2000   Volume 31, Issue 2 145-146 doi: 10.1046/j.1365-2052.2000.00585.x
Lindgren G.No abstract available
Twenty-one new equine dinucleotide repeat microsatellites.
Animal genetics    April 27, 2000   Volume 31, Issue 2 141 doi: 10.1046/j.1365-2052.2000.00574.x
Roberts MC, Murtaugh J, Valberg SJ, Mickelson JR, Alexander LJ.No abstract available
Two polymorphic markers for the horse SLC11A1 (NRAMP1) gene.
Animal genetics    April 27, 2000   Volume 31, Issue 2 152 doi: 10.1046/j.1365-2052.2000.00599.x
Horín P, Matiasovic J.No abstract available
Polymorphic microsatellites associated with the equine CKM and CMA1 genes.
Animal genetics    April 27, 2000   Volume 31, Issue 2 141-142 doi: 10.1046/j.1365-2052.2000.00577.x
Caetano AR, Murray JD, Bowling AT.No abstract available
The isolation and characterization of 18 equine microsatellite loci, TKY272-TKY289.
Animal genetics    April 27, 2000   Volume 31, Issue 2 149-150 doi: 10.1046/j.1365-2052.2000.00596.x
Tozaki T, Kakoi H, Mashima S, Hirota K, Hasegawa T, Ishida N, Miura N, Tomita M.No abstract available
Ten equine microsatellite loci: TKY25, TKY26, TKY27, TKY28, TKY29, TKY267, TKY268, TKY269, TKY270 and TKY271.
Animal genetics    February 26, 2000   Volume 31, Issue 1 68-69 doi: 10.1111/j.1365-2052.2000.579-1.x
Kakoi H, Tozaki T, Hirota K, Mashima S, Kurosawa M, Miura N.No abstract available
Characterization of ten equine dinucleotide microsatellite loci: NVHEQ21, NVHEQ54, NVHEQ67, NVHEQ70, NVHEQ75, NVHEQ77, NVHEQ79, NVHEQ81, NVHEQ82 and NVHEQ83.
Animal genetics    February 26, 2000   Volume 31, Issue 1 78-79 doi: 10.1111/j.1365-2052.2000.579-13.x
Bjørnstad G, Midthjell L, Røed KH.No abstract available
The genetic structure of Spanish Celtic horse breeds inferred from microsatellite data.
Animal genetics    February 26, 2000   Volume 31, Issue 1 39-48 doi: 10.1046/j.1365-2052.2000.00591.x
Cañon J, Checa ML, Carleos C, Vega-Pla JL, Vallejo M, Dunner S.Partition of the genetic variability, genetic structure and relationships among seven Spanish Celtic horse breeds were studied using PCR amplification of 13 microsatellites on 481 random individuals. In addition, 60 thoroughbred horses were included. The average observed heterozygosity and the mean number of alleles were higher for the Atlantic horse breeds than for the Balearic Islands breeds. Only eight percentage of the total genetic variability could be attributed to differences among breeds (mean FST approximately 0.08; P < 0.01). Atlantic breeds clearly form a separate cluster from th...
A pedigree-based study of mitochondrial D-loop DNA sequence variation among Arabian horses.
Animal genetics    February 26, 2000   Volume 31, Issue 1 1-7 doi: 10.1046/j.1365-2052.2000.00558.x
Bowling AT, Del Valle A, Bowling M.Through DNA sequence comparisons of a mitochondrial D-loop hypervariable region, we investigated matrilineal diversity for Arabian horses in the United States. Sixty-two horses were tested. From published pedigrees they traced in the maternal line to 34 mares acquired primarily in the mid to late 19th century from nomadic Bedouin tribes. Compared with the reference sequence (GenBank X79547), these samples showed 27 haplotypes with altogether 31 base substitution sites within 397 bp of sequence. Based on examination of pedigrees from a random sampling of 200 horses in current studbooks of the A...
Equine dinucleotide repeat loci COR081-COR100.
Animal genetics    December 28, 1999   Volume 30, Issue 6 470-471 
Tallmadge RL, Evans KG, Hopman TJ, Schug MD, Aquadro CF, Bowling AT, Murray JD, Caetano AR, Antczak DF.This paper describes a fifth set of 20 characterized horse dinucleotide repeat markers developed at Cornell University.
Equine dinucleotide repeat loci COR061-COR080.
Animal genetics    December 28, 1999   Volume 30, Issue 6 462-463 doi: 10.1046/j.1365-2052.1999.00498-9.x
Tallmadge RL, Hopman TJ, Schug MD, Aquadro CF, Bowling AT, Murray JD, Caetano AR, Antczak DF.No abstract available
Mitochondrial D-loop sequence variation among the 16 maternal lines of the Lipizzan horse breed.
Animal genetics    December 28, 1999   Volume 30, Issue 6 423-430 doi: 10.1046/j.1365-2052.1999.00557.x
Kavar T, Habe F, Brem G, Dovc P.Mitochondrial DNA from 49 Lipizzan horses representing 16 maternal lines from the original stud at Lipica was used for SSCP analysis and DNA sequencing. The SSCP analysis of the 444 bp long fragment of the D-loop region extending from the tRNA(Pro) gene to the central conserved sequence block revealed three distinct groups of SSCP patterns. Both ends of the D-loop region (378 bp and 310 bp), which are considered as the most variable regions within the mammalian mitochondrial DNA, were sequenced. According to 49 polymorphic sites identified within the both parts of the D-loop region, the 16 mat...