Ellis-Van Creveld Syndrome: Clinical and Molecular Analysis of 50 Individuals

纤毛病 多指 睫状体病 遗传学 表型 生物 纤毛 胶质3 基因 转录因子 抑制因子
作者
Marion Aubert‐Mucca,Céline Huber,Geneviève Baujat,Caroline Michot,Mohammed Zarhrate,Marc Bras,Lucile Boutaud,Valérie Malan,Tania Attié‐Bitach,Valérie Cormier‐Daire
出处
期刊:Journal of Medical Genetics [BMJ]
卷期号:60 (4): 337-345 被引量:12
标识
DOI:10.1136/jmg-2022-108435
摘要

Background Ellis-Van Creveld (EVC) syndrome is one of the entities belonging to the skeletal ciliopathies short rib–polydactyly subgroup. Major signs are ectodermal dysplasia, chondrodysplasia, polydactyly and congenital cardiopathy, with a high degree of variability in phenotypes ranging from lethal to mild clinical presentations. The EVC and EVC2 genes are the major genes causative of EVC syndrome. However, an increased number of genes involved in the ciliopathy complex have been identified in EVC syndrome, leading to a better understanding of its physiopathology, namely, WDR35 , GLI1 , DYNC2LI1 , PRKACA , PRKACB and SMO . They all code for proteins located in the primary cilia, playing a key role in signal transduction of the Hedgehog pathways. Methods The aim of this study was the analysis of 50 clinically identified EVC cases from 45 families to further define the phenotype and molecular bases of EVC. Results Our detection rate in the cohort of 45 families was of 91.11%, with variants identified in EVC/EVC2 (77.8%), DYNC2H1 (6.7%), DYNC2LI1 (2.2%), SMO (2.2%) or PRKACB (2.2%). No distinctive feature was remarkable of a specific genotype–phenotype correlation. Interestingly, we identified a high proportion of heterozygous deletions in EVC/EVC2 of variable sizes (26.92%), mostly inherited from the mother, and probably resulting from recombinations involving Alu sequences. Conclusion We confirmed that EVC and EVC2 are the major genes involved in the EVC phenotype and highlighted the high prevalence of previously unreported CNVs (Copy Number Variation).
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