脊椎动物中的唾液酸酶:为几种细胞功能量身定制的酶家族。

Eugenio Monti, Erik Bonten, Alessandra D'Azzo, Roberto Bresciani, Bruno Venerando, Giuseppe Borsani, Roland Schauer, Guido Tettamanti
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引用次数: 164

摘要

本文综述了近年来脊椎动物唾液酸酶生物学的研究进展。含唾液酸的化合物在许多生理过程中发挥重要作用,包括细胞增殖、凋亡和分化、细胞粘附控制、免疫监视和血浆蛋白清除。在这种情况下,唾液酸酶,即在各种糖缀合物的非还原端去除末端唾液酸的糖水解酶,发挥着同样关键的作用。高等生物中的唾液酸酶在细胞和组织/器官中有差异表达,具有特定的亚细胞分布和底物特异性:它们是溶酶体(NEU1)、细胞质(NEU2)和质膜和细胞内相关唾液酸酶(NEU3和NEU4)。自1993年以来,一些哺乳动物唾液酸酶的分子克隆促进了这一领域的研究。本文总结了自2002年哺乳动物唾液酸酶分子生物学综述以来的研究成果。在那几年里,许多关于唾液酸酶生物学不同方面的原创论文已经发表,强调了这些酶在糖生物学中的日益重要的意义。还注意到反式唾液酸酶,它将唾液酸残基从供体唾液偶联物转移到受体唾液酸底物。这些酶在锥虫体内大量分布,并用于表达致病性,在人体内也是如此。哺乳动物唾液酸酯酶和反式唾液酸酯酶在活性位点水平上存在结构上的相似性和策略上的差异性。更好地了解这些特性可以设计出更好的抗病原体药物。
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Sialidases in vertebrates: a family of enzymes tailored for several cell functions.

This review summarizes the recent research development on vertebrate sialidase biology. Sialic acid-containing compounds play important roles in many physiological processes, including cell proliferation, apoptosis and differentiation, control of cell adhesion, immune surveillance, and clearance of plasma proteins. In this context, sialidases, the glycohydrolases that remove the terminal sialic acid at the non-reducing end of various glycoconjugates, perform an equally pivotal function. Sialidases in higher organisms are differentially expressed in cells and tissues/organs, with particular subcellular distribution and substrate specificity: they are the lysosomal (NEU1), the cytosolic (NEU2), and plasma membrane- and intracellular-associated sialidases (NEU3 and NEU4). The molecular cloning of several mammalian sialidases since 1993 has boosted research in this field. Here we summarize the results obtained since 2002, when the last general review on the molecular biology of mammalian sialidases was written. In those few years many original papers dealing with different aspects of sialidase biology have been published, highlighting the increasing relevance of these enzymes in glycobiology. Attention has also been paid to the trans-sialidases, which transfer sialic acid residues from a donor sialoconjugate to an acceptor asialo substrate. These enzymes are abundantly distributed in trypanosomes and employed to express pathogenicity, also in humans. There are structural similarities and strategic differences at the level of the active site between the mammalian sialidases and trans-sialidases. A better knowledge of these properties may permit the design of better anti-pathogen drugs.

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来源期刊
Advances in carbohydrate chemistry and biochemistry
Advances in carbohydrate chemistry and biochemistry 生物-生化与分子生物学
CiteScore
2.20
自引率
0.00%
发文量
0
期刊介绍: Advances in Carbohydrate Chemistry and Biochemistry has provided, since its inception in 1945, critical and informative articles written by research specialists that integrate the industrial, analytical, and technological aspects of biochemistry, organic chemistry, and instrumentation methodology to the study of carbohydrates. Its articles present a definitive interpretation of the current status and future trends in carbohydrate chemistry and biochemistry.
期刊最新文献
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