PGRN和Gba1 D409V突变剂量在戈谢病恶化中的内在联系。

IF 4.3 3区 材料科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC ACS Applied Electronic Materials Pub Date : 2024-10-07 DOI:10.1093/hmg/ddae113
Yi Lin, Xiangli Zhao, Benjamin Liou, Venette Fannin, Wujuan Zhang, Kenneth D R Setchell, Xiaohong Wang, Dao Pan, Gregory A Grabowski, Chuan-Ju Liu, Ying Sun
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引用次数: 0

摘要

戈谢病(GD)是由编码葡萄糖脑苷脂酶(GCase)缺陷的 GBA1/Gba1 双偶性突变引起的。Progranulin(PGRN,由GRN/Grn编码)是GCase的调节因子,但PGRN和GCase(特别是GBA1/Gba1突变)之间的相互作用导致戈谢病严重程度的原因尚不清楚。我们用不同剂量的 Gba1 D409V 突变与 PGRN 缺乏(Grn-/-)建立了小鼠模型[Grn-/-;Gba1D409V/WT (PG9Vwt)、Grn-/-;Gba1D409V/D409V (PG9V)、Grn-/-;Gba1D409V/Null (PG9VN)]。通过生化、病理、转录组和神经行为分析,确定了这些小鼠模型的疾病进展特征。与PG9Vwt、Grn-/-;Gba1WT/Null和Grn-/-小鼠相比,PG9V或PG9VN中的同源或半同源D409V小鼠具有更高水平的GCase活性,且无法检测到病变,但它们分别导致了严重的炎症和神经退行性变。与 PG9V 小鼠相比,PG9VN 小鼠发病更早、寿命更短、组织纤维化和表型更严重。PG9VN小鼠的糖磷脂积累、炎症反应、溶酶体-自噬功能障碍、小神经胶质细胞病变、视网膜胶质细胞病变以及α-突触核蛋白增加都更为明显。PG9VN 神经退行性变的特征是受损神经元被激活的小胶质细胞吞噬,细胞因坏死而程序性死亡,也可能因热解而程序性死亡。脑转录组分析揭示了 D409V 剂量与 GD 中溶酶体功能障碍、小胶质细胞增多和神经变性相关基因表达改变程度之间的内在联系,表明疾病的严重程度取决于与 Gba1 D409V 剂量和 PGRN 缺失相关的 GCase 活性阈值。这些发现阐明了PGRN和Gba1突变剂量在调节GD和GBA1相关神经退行性疾病的GCase功能和疾病严重程度方面相互作用的其他潜在机制,有助于加深对GD发病机制的理解。
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Intrinsic link between PGRN and Gba1 D409V mutation dosage in potentiating Gaucher disease.

Gaucher disease (GD) is caused by biallelic GBA1/Gba1 mutations that encode defective glucocerebrosidase (GCase). Progranulin (PGRN, encoded by GRN/Grn) is a modifier of GCase, but the interplay between PGRN and GCase, specifically GBA1/Gba1 mutations, contributing to GD severity is unclear. Mouse models were developed with various dosages of Gba1 D409V mutation against the PGRN deficiency (Grn-/-) [Grn-/-;Gba1D409V/WT (PG9Vwt), Grn-/-;Gba1D409V/D409V (PG9V), Grn-/-;Gba1D409V/Null (PG9VN)]. Disease progression in those mouse models was characterized by biochemical, pathological, transcriptomic, and neurobehavioral analyses. Compared to PG9Vwt, Grn-/-;Gba1WT/Null and Grn-/- mice that had a higher level of GCase activity and undetectable pathologies, homozygous or hemizygous D409V in PG9V or PG9VN, respectively, resulted in profound inflammation and neurodegeneration. PG9VN mice exhibited much earlier onset, shorter life span, tissue fibrosis, and more severe phenotypes than PG9V mice. Glycosphingolipid accumulation, inflammatory responses, lysosomal-autophagy dysfunction, microgliosis, retinal gliosis, as well as α-Synuclein increases were much more pronounced in PG9VN mice. Neurodegeneration in PG9VN was characterized by activated microglial phagocytosis of impaired neurons and programmed cell death due to necrosis and, possibly, pyroptosis. Brain transcriptomic analyses revealed the intrinsic relationship between D409V dosage, and the degree of altered gene expression related to lysosome dysfunction, microgliosis, and neurodegeneration in GD, suggesting the disease severity is dependent on a GCase activity threshold related to Gba1 D409V dosage and loss of PGRN. These findings contribute to a deeper understanding of GD pathogenesis by elucidating additional underlying mechanisms of interplay between PGRN and Gba1 mutation dosage in modulating GCase function and disease severity in GD and GBA1-associated neurodegenerative diseases.

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