Biallelic loss of EEF1D function links heat shock response pathway to autosomal recessive intellectual disability

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作者
Sibel Aylin Ugur Iseri
Emrah Yucesan
Feyza Nur Tuncer
Mustafa Calik
Yesim Kesim
Gunes Altiokka Uzun
Ugur Ozbek
机构
[1] Istanbul University,Department of Genetics, Aziz Sancar Institute of Experimental Medicine
[2] Bezmialem Vakif University,Institute of Life Sciences and Biotechnology
[3] Harran University,Department of Pediatric Neurology, Faculty of Medicine
[4] Istanbul University,Department of Neurology, Istanbul Faculty of Medicine
[5] Mehmet Ali Aydinlar Acibadem University,Department of Medical Genetics, School of Medicine
来源
Journal of Human Genetics | 2019年 / 64卷
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摘要
Intellectual disability (ID) is a genetically heterogeneous neurodevelopmental disorder characterised by significantly impaired intellectual and adaptive functioning. ID is commonly syndromic and associated with developmental, metabolic and/or neurological findings. Autosomal recessive ID (ARID) is a significant component of ID especially in the presence of parental consanguinity. Several ultra rare ARID associated variants in numerous genes specific almost to single families have been identified by unbiased next generation sequencing technologies. However, most of these new candidate ARID genes have not been replicated in new families due to the rarity of associated alleles in this highly heterogeneous condition. To determine the genetic component of ARID in a consanguineous family from Turkey, we have performed SNP-based linkage analysis in the family along with whole exome sequencing (WES) in an affected sibling. Eventually, we have identified a novel pathogenic variant in EEF1D, which has recently been recognised as a novel candidate gene for ARID in a single family. EEF1D encodes a ubiquitously expressed translational elongation factor functioning in the cytoplasm. Herein, we suggest that the loss of function variants exclusively targeting the long EEF1D isoform may explicate the ARID phenotype through the heat shock response pathway, rather than interfering with the canonical translational elongation.
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页码:421 / 426
页数:5
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