动物凝集素:一种高度通用的识别蛋白。

Akshaya Radhakrishnan, Hethesh Chellapandian, Pasiyappazham Ramasamy, Sivakamavalli Jeyachandran
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引用次数: 4

摘要

分子研究的快速发展促进了“凝集素”的发现,凝集素是一种碳水化合物结合蛋白,它特异性地与表面聚糖部分的受体相互作用,调节各种关键的细胞活动。报道的第一个动物凝集素是哺乳动物细胞中的“asialal糖蛋白受体”,这有助于分析动物凝集素在糖缀合结合方面的差异。根据其不同的细胞定位和碳水化合物识别结构域(CRD)模块的结合特异性,动物凝集素被分为几个家族。早期对动物凝集素的表征将它们分为两个结构家族,c型(Ca2+依赖结合)和s型(巯基依赖结合)凝集素。c型凝集素包括最重要的动物凝集素,如内吞受体、甘露糖受体、选择素和集合素。基于碳水化合物配体的复杂性、代谢过程、表达水平以及对二价阳离子的依赖性,近年来的研究已经鉴定出100多种动物凝集素,并将其划分为13个不同的科,如钙连素、f -凝集素、卵磷脂、几丁质酶样凝集素、F-box凝集素等。了解它们的结构和表达模式有助于确定它们的重要功能,包括细胞粘附、抗菌活性、先天免疫、疾病诊断生物标志物和通过特定碳水化合物-蛋白质相互作用的药物传递。动物凝集素具有如此广泛的潜在作用,使其在研究人员中与植物凝集素同等重要。因此,本文将对动物凝集素的分类、结构特征及其与碳水化合物和糖缀合物结合相关的功能进行综述。图形化的简介:
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Back2Basics: animal lectins: an insight into a highly versatile recognition protein.

Back2Basics: animal lectins: an insight into a highly versatile recognition protein.

Back2Basics: animal lectins: an insight into a highly versatile recognition protein.

Back2Basics: animal lectins: an insight into a highly versatile recognition protein.

The rapid advancement of molecular research has contributed to the discovery of 'Lectin', a carbohydrate-binding protein which specifically interacts with receptors on surface glycan moieties that regulate various critical cellular activities. The first animal lectin reported was 'the asialoglycoprotein receptor' in mammalian cells which helped analyze how animal lectins differ in glycoconjugate binding. Animal lectins are classified into several families, depending on their diverse cellular localization, and the binding specificities of their Carbohydrate-Recognition Domain (CRD) modules. Earlier characterization of animal lectins classified them into two structural families, the C-type (Ca2+-dependent binding) and S-type galectins (sulfhydryl-dependent binding) lectins. The C-type lectin includes the most significant animal lectins, such as endocytic receptors, mannose receptors, selectins, and collectins. The recent developments in research based on the complexity of the carbohydrate ligands, the metabolic processes they perform, their expression levels, and their reliance on divalent cations have identified more than 100 animal lectins and classified them into around 13 different families, such as Calnexin, F-lectin, Intelectin, Chitinase-like lectin, F-box lectin, etc. Understanding their structure and expression patterns have aided in defining their significant functions including cell adhesion, antimicrobial activity, innate immunity, disease diagnostic biomarkers, and drug delivery through specific carbohydrate-protein interactions. Such extensive potential roles of animal lectins made it equally important to plant lectins among researchers. Hence, the review focuses on providing an overview of animal lectins, their taxonomy, structural characteristics, and functions in diverse aspects interconnected to their specific carbohydrate and glycoconjugate binding.

Graphical abstract:

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