A loss-of-function variant in canine GLRA1 associates with a neurological disorder resembling human hyperekplexia

被引:0
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作者
Tiina Heinonen
Thomas Flegel
Hanna Müller
Alexandra Kehl
Sruthi Hundi
Kaspar Matiasek
Andrea Fischer
Jonas Donner
Oliver P. Forman
Hannes Lohi
Marjo K. Hytönen
机构
[1] University of Helsinki,Department of Medical and Clinical Genetics
[2] Folkhälsan Research Center,Department of Veterinary Biosciences
[3] University of Helsinki,Department of Small Animals
[4] Leipzig University,Section of Clinical and Comparative Neuropathology, Institute of Veterinary Pathology, Centre for Clinical Veterinary Medicine
[5] Tieraerztliches Fachzentrum Muehlhausen Dr. Ortmann & Dr. Stief,Clinic of Small Animal Medicine, Centre for Clinical Veterinary Medicine
[6] Laboklin GmbH&CO.KG,Wisdom Panel Research Team
[7] LMU Munich,Wisdom Panel Research Team
[8] LMU Munich,undefined
[9] Wisdom Panel,undefined
[10] Wisdom Panel,undefined
来源
Human Genetics | 2023年 / 142卷
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摘要
Hereditary hyperekplexia is a rare neuronal disorder characterized by an exaggerated startle response to sudden tactile or acoustic stimuli. In this study, we present a Miniature Australian Shepherd family showing clinical signs, which have genetic and phenotypic similarities with human hereditary hyperekplexia: episodes of muscle stiffness that could occasionally be triggered by acoustic stimuli. Whole genome sequence data analysis of two affected dogs revealed a 36-bp deletion spanning the exon–intron boundary in the glycine receptor alpha 1 (GLRA1) gene. Further validation in pedigree samples and an additional cohort of 127 Miniature Australian Shepherds, 45 Miniature American Shepherds and 74 Australian Shepherds demonstrated complete segregation of the variant with the disease, according to an autosomal recessive inheritance pattern. The protein encoded by GLRA1 is a subunit of the glycine receptor, which mediates postsynaptic inhibition in the brain stem and spinal cord. The canine GLRA1 deletion is located in the signal peptide and is predicted to cause exon skipping and subsequent premature stop codon resulting in a significant defect in glycine signaling. Variants in GLRA1 are known to cause hereditary hyperekplexia in humans; however, this is the first study to associate a variant in canine GLRA1 with the disorder, establishing a spontaneous large animal disease model for the human condition.
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页码:1221 / 1230
页数:9
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