蛋白质的极性定位--绿色视角。

IF 4.3 3区 材料科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC ACS Applied Electronic Materials Pub Date : 2024-09-15 Epub Date: 2024-09-27 DOI:10.1242/jcs.262068
Evgeniya M Pukhovaya, João Jacob Ramalho, Dolf Weijers
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引用次数: 0

摘要

细胞极性--细胞内分子和细胞结构的不对称分布--是几乎所有细胞都具有的特征。尽管细胞骨架和其他细胞内有机体可以引导蛋白质的分布方向,但在许多情况下,质膜对蛋白质的非对称定位至关重要,因为它有助于集中蛋白质并限制其定位。事实上,许多表现出不对称或极化定位的蛋白质要么嵌入质膜,要么在细胞皮层中靠近质膜。我们在此将此类蛋白质称为 "极性蛋白质",它们利用各种膜靶向机制,包括囊泡贩运、直接磷脂结合、或通过翻译后修饰或与其他蛋白质结合进行膜锚定。这些机制通常与非极性蛋白质共享,但几种机制或蛋白质特异性因素的独特组合确保了极性蛋白质的不对称分布。虽然人们对动物和酵母模型中极性蛋白的膜靶向机制有了相对详细的了解,但对植物中极性蛋白的了解却比较零散,而且主要集中在不同背景下数量有限的已知极性蛋白上。在这篇综述中,我们综合了目前对已知植物跨膜和皮层蛋白的膜靶向机制和因子的了解,并将其与非植物系统中阐明的机制进行了比较。我们将已知因子分为一般因子和极性特异因子,并强调了需要更多知识才能理解植物一般极性靶向机制或解决争议的领域。
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Polar targeting of proteins - a green perspective.

Cell polarity - the asymmetric distribution of molecules and cell structures within the cell - is a feature that almost all cells possess. Even though the cytoskeleton and other intracellular organelles can have a direction and guide protein distribution, the plasma membrane is, in many cases, essential for the asymmetric localization of proteins because it helps to concentrate proteins and restrict their localization. Indeed, many proteins that exhibit asymmetric or polarized localization are either embedded in the PM or located close to it in the cellular cortex. Such proteins, which we refer to here as 'polar proteins', use various mechanisms of membrane targeting, including vesicle trafficking, direct phospholipid binding, or membrane anchoring mediated by post-translational modifications or binding to other proteins. These mechanisms are often shared with non-polar proteins, yet the unique combinations of several mechanisms or protein-specific factors assure the asymmetric distribution of polar proteins. Although there is a relatively detailed understanding of polar protein membrane targeting mechanisms in animal and yeast models, knowledge in plants is more fragmented and focused on a limited number of known polar proteins in different contexts. In this Review, we combine the current knowledge of membrane targeting mechanisms and factors for known plant transmembrane and cortical proteins and compare these with the mechanisms elucidated in non-plant systems. We classify the known factors as general or polarity specific, and we highlight areas where more knowledge is needed to construct an understanding of general polar targeting mechanisms in plants or to resolve controversies.

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CiteScore
7.20
自引率
4.30%
发文量
567
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