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通过外显子组测序鉴定食管闭锁/气管食管瘘的新型候选基因。

Novel candidate genes in esophageal atresia/tracheoesophageal fistula identified by exome sequencing.

机构信息

Department of Pediatrics, Columbia University Medical Center, New York, NY, USA.

Departments of Systems Biology and Biomedical Informatics, Columbia University Medical Center, New York, NY, USA.

出版信息

Eur J Hum Genet. 2021 Jan;29(1):122-130. doi: 10.1038/s41431-020-0680-2. Epub 2020 Jul 8.

Abstract

The various malformations of the aerodigestive tract collectively known as esophageal atresia/tracheoesophageal fistula (EA/TEF) constitute a rare group of birth defects of largely unknown etiology. Previous studies have identified a small number of rare genetic variants causing syndromes associated with EA/TEF. We performed a pilot exome sequencing study of 45 unrelated simplex trios (probands and parents) with EA/TEF. Thirteen had isolated and 32 had nonisolated EA/TEF; none had a family history of EA/TEF. We identified de novo variants in protein-coding regions, including 19 missense variants predicted to be deleterious (D-mis) and 3 likely gene-disrupting (LGD) variants. Consistent with previous studies of structural birth defects, there is a trend of increased burden of de novo D-mis in cases (1.57-fold increase over the background mutation rate), and the burden is greater in constrained genes (2.55-fold, p = 0.003). There is a frameshift de novo variant in EFTUD2, a known EA/TEF risk gene involved in mRNA splicing. Strikingly, 15 out of 19 de novo D-mis variants are located in genes that are putative target genes of EFTUD2 or SOX2 (another known EA/TEF gene), much greater than expected by chance (3.34-fold, p value = 7.20e-5). We estimated that 33% of patients can be attributed to de novo deleterious variants in known and novel genes. We identified APC2, AMER3, PCDH1, GTF3C1, POLR2B, RAB3GAP2, and ITSN1 as plausible candidate genes in the etiology of EA/TEF. We conclude that further genomic analysis to identify de novo variants will likely identify previously undescribed genetic causes of EA/TEF.

摘要

各种呼吸道和消化道畸形统称为食管闭锁/气管食管瘘(EA/TEF),是一组罕见的出生缺陷,其病因大多未知。先前的研究已经确定了少数导致与 EA/TEF 相关的综合征的罕见遗传变异。我们对 45 个无关联的单纯三体型(先证者及其父母)进行了外显子组测序的初步研究。其中 13 例为单纯性 EA/TEF,32 例为非单纯性 EA/TEF;均无 EA/TEF 家族史。我们在编码区发现了新生变异,包括 19 个预测为有害的错义变异(D-mis)和 3 个可能的基因破坏(LGD)变异。与先前关于结构出生缺陷的研究一致,病例中新生 D-mis 的负担有增加的趋势(比背景突变率增加 1.57 倍),并且在受约束的基因中负担更大(2.55 倍,p=0.003)。在 EFTUD2 中发现了一个新生移码变异,EFTUD2 是一种已知的 EA/TEF 风险基因,参与 mRNA 剪接。引人注目的是,19 个新生 D-mis 变异中有 15 个位于 EFTUD2 或 SOX2(另一个已知的 EA/TEF 基因)的假定靶基因中,远远超过预期的随机值(3.34 倍,p 值=7.20e-5)。我们估计,33%的患者可以归因于已知和新基因中的新生有害变异。我们确定 APC2、AMER3、PCDH1、GTF3C1、POLR2B、RAB3GAP2 和 ITSN1 是 EA/TEF 病因学中的合理候选基因。我们得出结论,进一步的基因组分析以鉴定新生变异很可能会发现以前未描述的 EA/TEF 遗传原因。

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