P4-ATP 酶的内体再循环依赖于多种 retromer 依赖性定位信号。

IF 3.1 3区 生物学 Q3 CELL BIOLOGY Molecular Biology of the Cell Pub Date : 2024-10-01 Epub Date: 2024-08-07 DOI:10.1091/mbc.E24-05-0209
Mariana Jiménez, Claire K Kyoung, Kateryna Nabukhotna, Davia Watkins, Bhawik K Jain, Jordan T Best, Todd R Graham
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引用次数: 0

摘要

Ⅳ型P-型ATP酶(P4-ATP酶)是一种脂质翻转酶,可产生对细胞存活至关重要的不对称膜组织。五种芽殖酵母 P4-ATP 酶在高尔基复合体、质膜和内质体之间流动,但它们如何从内溶酶体系统循环到高尔基复合体却鲜为人知。在这项研究中,我们发现 P4-ATP 酶的内体循环主要由 retromer 复合物和 F-box 蛋白 Rcy1 驱动。P4-ATP 酶再循环缺陷会导致它们错误定位到液泡,并导致膜不对称性的严重丧失。P4-ATP 酶含有多个预测的 retromer 分选信号,对这些信号在 Dnf1 和 Dnf2 中的特性进行鉴定后,发现了一个新的依赖 retromer 的信号 IPM[ST],该信号与预测的基团具有冗余作用。这些结果共同强调了内体循环对 P4-ATP 酶功能定位和膜组织的重要性。
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P4-ATPase endosomal recycling relies on multiple retromer-dependent localization signals.

Type IV P-type ATPases (P4-ATPases) are lipid flippases that generate an asymmetric membrane organization essential for cell viability. The five budding yeast P4-ATPases traffic between the Golgi complex, plasma membrane, and endosomes but how they are recycled from the endolysosomal system to the Golgi complex is poorly understood. In this study, we find that P4-ATPase endosomal recycling is primarily driven by the retromer complex and the F-box protein Rcy1. Defects in P4-ATPase recycling result in their mislocalization to the vacuole and a substantial loss of membrane asymmetry. The P4-ATPases contain multiple predicted retromer sorting signals, and the characterization of these signals in Dnf1 and Dnf2 led to the identification of a novel retromer-dependent signal, IPM[ST] that acts redundantly with predicted motifs. Together, these results emphasize the importance of endosomal recycling for the functional localization of P4-ATPases and membrane organization.

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来源期刊
Molecular Biology of the Cell
Molecular Biology of the Cell 生物-细胞生物学
CiteScore
6.00
自引率
6.10%
发文量
402
审稿时长
2 months
期刊介绍: MBoC publishes research articles that present conceptual advances of broad interest and significance within all areas of cell, molecular, and developmental biology. We welcome manuscripts that describe advances with applications across topics including but not limited to: cell growth and division; nuclear and cytoskeletal processes; membrane trafficking and autophagy; organelle biology; quantitative cell biology; physical cell biology and mechanobiology; cell signaling; stem cell biology and development; cancer biology; cellular immunology and microbial pathogenesis; cellular neurobiology; prokaryotic cell biology; and cell biology of disease.
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