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硫酸化作用影响胚胎唾液腺管发育过程中顶端细胞外基质的组织。

Sulfation affects apical extracellular matrix organization during development of the embryonic salivary gland tube.

作者信息

Woodward J Luke, Matthew Jeffrey, Joshi Rutuparna, Vishwakarma Vishakha, Xiao Ying, Chung SeYeon

机构信息

Department of Biological Sciences, Louisiana State University, Baton Rouge, United States.

Shared Instrumentation Facility, Louisiana State University, Baton Rouge, United States.

出版信息

Elife. 2025 Sep 23;14:RP108292. doi: 10.7554/eLife.108292.

DOI:10.7554/eLife.108292
PMID:40985336
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC12456955/
Abstract

The apical extracellular matrix (aECM) plays a critical role in epithelial tube morphogenesis during organ formation, but its composition and organization remain poorly understood. Using the embryonic salivary gland (SG) as a model, we identify Papss, an enzyme that synthesizes the universal sulfate donor PAPS, as a critical regulator of tube lumen expansion. mutants show a disorganized apical membrane, condensed aECM, and disruptions in Golgi structures and intracellular trafficking. SG-specific expression of wild-type Papss, but not the catalytically inactive form, rescues the defects in mutants, suggesting that defects in sulfation are the underlying cause of the phenotypes. Additionally, we identify two zona pellucida (ZP) domain proteins, Piopio (Pio), and Dumpy (Dpy), as key components of the SG aECM. In the absence of , Pio is gradually lost in the aECM, while the Dpy-positive aECM structure is condensed and dissociates from the apical membrane, leading to a thin lumen. Mutations in or , or in , which encodes a matriptase that cleaves Pio to form the luminal Pio pool, result in a SG lumen with alternating bulges and constrictions, with the loss of leading to the loss of Dpy in the lumen. Our findings underscore the essential role of sulfation in organizing the aECM during tubular organ formation and highlight the mechanical support provided by ZP domain proteins in maintaining luminal diameter.

摘要

顶端细胞外基质(aECM)在器官形成过程中的上皮管形态发生中起关键作用,但其组成和组织仍知之甚少。我们以胚胎唾液腺(SG)为模型,鉴定出一种合成通用硫酸盐供体PAPS的酶Papss,它是管腔扩张的关键调节因子。突变体表现出顶端膜紊乱、aECM浓缩以及高尔基体结构和细胞内运输的破坏。野生型Papss而非催化失活形式在SG中的特异性表达挽救了突变体中的缺陷,这表明硫酸化缺陷是这些表型的根本原因。此外,我们鉴定出两种透明带(ZP)结构域蛋白,Piopio(Pio)和Dumpy(Dpy),它们是SG aECM的关键成分。在缺乏Pio的情况下,Pio在aECM中逐渐丢失,而Dpy阳性的aECM结构浓缩并从顶端膜解离,导致管腔变窄。Pio或Dpy的突变,或编码一种切割Pio以形成管腔内Pio池的matriptase的基因的突变,导致SG管腔出现交替的凸起和收缩,Pio的缺失导致管腔内Dpy的丢失。我们的研究结果强调了硫酸化在管状器官形成过程中组织aECM的重要作用,并突出了ZP结构域蛋白在维持管腔直径方面提供的机械支持。

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