从一名携带 SCL19A3 基因同源致病性错义变体的沙特籍生物素-硫胺素反应性基底节疾病(BTBGD)患者身上衍生出两个 iPSC 株系(KAIMRCi004-A、KAIMRCi004-B)。

IF 4.3 3区 材料科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC ACS Applied Electronic Materials Pub Date : 2024-09-01 Epub Date: 2024-07-09 DOI:10.1007/s13577-024-01097-4
Maryam Alowaysi, Moayad Baadhaim, Mohammad Al-Shehri, Hajar Alzahrani, Amani Badkok, Hanouf Attas, Samer Zakri, Seham Alameer, Dalal Malibari, Manal Hosawi, Mustafa Daghestani, Khalid Al-Ghamdi, Mohammed Muharraq, Asima Zia, Jesper Tegne, Majid Alfadhel, Doaa Aboalola, Khaled Alsayegh
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引用次数: 0

摘要

生物素-硫胺素反应性基底节区病(BTBGD)是一种罕见的常染色体隐性遗传病,与 SLC19A3 基因的双等位致病突变有关。BTBGD 的特征是进行性脑病、意识模糊、癫痫发作、构音障碍、肌张力障碍和严重残疾。由于该病罕见且临床特征多样,因此诊断十分困难。目前,治疗 BTBGD 的主要方法是补充硫胺素和生物素,但其长期有效性仍在研究之中。在这项研究中,我们从一名 10 岁女性 BTBGD 患者身上获得了两个诱导多能干细胞(iPSCs)克隆,该患者携带 SLC19A3 基因第 5 外显子 c.1264A > G(p.Thr422Ala)致病变异的同源突变。我们已经确认了所产生的 iPS 株系的多能性,并成功地将它们分化为神经祖细胞。由于我们对 BTBGD 基因型-表型相关性的了解有限,建立具有同源 SLC19A3 突变的 BTBGD-iPSC 株系为探索 SLC19A3 相关细胞功能障碍的分子机制提供了一个宝贵的细胞模型。该模型有望推动新型治疗策略的开发。
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Derivation of two iPSC lines (KAIMRCi004-A, KAIMRCi004-B) from a Saudi patient with Biotin-Thiamine-responsive Basal Ganglia Disease (BTBGD) carrying homozygous pathogenic missense variant in the SCL19A3 gene.

The neurometabolic disorder known as biotin-thiamine-responsive basal ganglia disease (BTBGD) is a rare autosomal recessive condition linked to bi-allelic pathogenic mutations in the SLC19A3 gene. BTBGD is characterized by progressive encephalopathy, confusion, seizures, dysarthria, dystonia, and severe disabilities. Diagnosis is difficult due to the disease's rare nature and diverse clinical characteristics. The primary treatment for BTBGD at this time is thiamine and biotin supplementation, while its long-term effectiveness is still being investigated. In this study, we have generated two clones of induced pluripotent stem cells (iPSCs) from a 10-year-old female BTBGD patient carrying a homozygous mutation for the pathogenic variant in exon 5 of the SLC19A3 gene, c.1264A > G (p.Thr422Ala). We have confirmed the pluripotency of the generated iPS lines and successfully differentiated them to neural progenitors. Because our understanding of genotype-phenotype correlations in BTBGD is limited, the establishment of BTBGD-iPSC lines with a homozygous SLC19A3 mutation provides a valuable cellular model to explore the molecular mechanisms underlying SLC19A3-associated cellular dysfunction. This model holds potential for advancing the development of novel therapeutic strategies.

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