A genome-wide association study of deafness in three canine breeds

Congenital deafness in the domestic dog is usually related to the presence of white pigmentation, which is controlled primarily by the piebald locus on chromosome 20 and also by merle on chromosome 10. Pigment-associated deafness is also seen in other species, including cats, mice, sheep, alpacas, h...

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Veröffentlicht in:PloS one 2020-05, Vol.15 (5), p.e0232900-e0232900
Hauptverfasser: Hayward, Jessica J, Kelly-Smith, Maria, Boyko, Adam R, Burmeister, Louise, De Risio, Luisa, Mellersh, Cathryn, Freeman, Julia, Strain, George M
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container_title PloS one
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creator Hayward, Jessica J
Kelly-Smith, Maria
Boyko, Adam R
Burmeister, Louise
De Risio, Luisa
Mellersh, Cathryn
Freeman, Julia
Strain, George M
description Congenital deafness in the domestic dog is usually related to the presence of white pigmentation, which is controlled primarily by the piebald locus on chromosome 20 and also by merle on chromosome 10. Pigment-associated deafness is also seen in other species, including cats, mice, sheep, alpacas, horses, cows, pigs, and humans, but the genetic factors determining why some piebald or merle dogs develop deafness while others do not have yet to be determined. Here we perform a genome-wide association study (GWAS) to identify regions of the canine genome significantly associated with deafness in three dog breeds carrying piebald: Dalmatian, Australian cattle dog, and English setter. We include bilaterally deaf, unilaterally deaf, and matched control dogs from the same litter, phenotyped using the brainstem auditory evoked response (BAER) hearing test. Principal component analysis showed that we have different distributions of cases and controls in genetically distinct Dalmatian populations, therefore GWAS was performed separately for North American and UK samples. We identified one genome-wide significant association and 14 suggestive (chromosome-wide) associations using the GWAS design of bilaterally deaf vs. control Australian cattle dogs. However, these associations were not located on the same chromosome as the piebald locus, indicating the complexity of the genetics underlying this disease in the domestic dog. Because of this apparent complex genetic architecture, larger sample sizes may be needed to detect the genetic loci modulating risk in piebald dogs.
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Pigment-associated deafness is also seen in other species, including cats, mice, sheep, alpacas, horses, cows, pigs, and humans, but the genetic factors determining why some piebald or merle dogs develop deafness while others do not have yet to be determined. Here we perform a genome-wide association study (GWAS) to identify regions of the canine genome significantly associated with deafness in three dog breeds carrying piebald: Dalmatian, Australian cattle dog, and English setter. We include bilaterally deaf, unilaterally deaf, and matched control dogs from the same litter, phenotyped using the brainstem auditory evoked response (BAER) hearing test. Principal component analysis showed that we have different distributions of cases and controls in genetically distinct Dalmatian populations, therefore GWAS was performed separately for North American and UK samples. 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subjects Alpaca
Beef cattle
Biology and Life Sciences
Brain stem
Canis lupus dingo
Cattle
Chromosome 10
Chromosome 20
Chromosomes
Complexity
Deaf persons
Deafness
Development and progression
Diseases
Dog breeds
Dogs
Domestic animals
Evoked response (psychophysiology)
Genetic aspects
Genetic disorders
Genetic factors
Genetic research
Genetics
Genome-wide association studies
Genomes
Genomics
Health aspects
Hearing loss
Hearing tests
Horses
Loci
Medicine and Health Sciences
Mutation
Pigmentation
Population genetics
Principal components analysis
Risk factors
Sheep
Swine
Veterinary colleges
Veterinary research
title A genome-wide association study of deafness in three canine breeds
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