卡利司他汀的生物化学、调控及潜在功能。

Biological chemistry Hoppe-Seyler Pub Date : 1995-12-01
J Chao, L Chao
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引用次数: 0

摘要

组织激肽激酶-激肽系统的组成部分包括组织激肽激酶、激肽抑制素(激肽结合蛋白)、激肽原、激肽、缓激肽B1和B2受体以及激肽酶。组织激肽酶是一种丝氨酸蛋白酶,能够裂解激肽原底物,释放具有血管活性的激肽。激肽与靶器官的特异性受体结合可产生广泛的生物学效应。激肽的产生主要由激肽激酶的活性和有效性决定,因为激肽原的水平不是一个速率限制因素。Kallikrein的水平受其合成、激活、失活和清除的速率控制。组织激肽激酶的合成受转录调控,其活性通过翻译后加工和抑制剂的失活来调节。卡利斯汀是一种新发现的丝氨酸蛋白酶抑制剂(丝氨酸蛋白酶),它与组织卡利斯汀形成特异性共价连接的复合物。凯里司他汀可能在翻译后水平调控组织凯里司因子的活性、生物利用度和清除率。卡利司他汀合成的主要部位是肝脏,胰腺和肾脏的表达水平较低。与许多只存在于血浆中的蛇形蛋白不同,卡利司他汀存在于各种组织、细胞和体液中。组织激肽肽和卡利司他汀在组织中广泛分布的事实表明,卡利司他汀在循环外作为激肽肽的潜在调节剂的作用。蛋白质纯化和分子克隆技术已被用于研究钾likrein-kinin系统各组分的结构、调控和功能,并探索其在离子转运、炎症和血压调节中的作用。近年来,在实现这些目标方面取得了相当大的进展。本文综述了卡利司他汀的生化特性和潜在的生理和病理生理作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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Biochemistry, regulation and potential function of kallistatin.

Components of the tissue kallikrein-kinin system include tissue kallikrein, kallistatin (kallikrein-binding protein), kininogen, kinin, bradykinin B1 and B2 receptors, and kininases. Tissue kallikrein is a serine proteinase which is capable of cleaving kininogen substrate to release the vasoactive kinin peptide. The binding of kinin to its specific receptor at target organs can produce a wide spectrum of biological effects. Kinin generation is primarily determined by the activity and availability of kallikrein since the level of kininogen is not a rate-limiting factor. Kallikrein levels are controlled by its rate of synthesis, activation, inactivation and clearance. The synthesis of tissue kallikrein is regulated transcriptionally, and its activity is regulated through post-translational processing and inactivation by inhibitors. Kallistatin is a newly discovered serine proteinase inhibitor (serpin) which forms a specific and covalently-linked complex with tissue kallikrein. Kallistatin may regulate tissue kallikrein's activity, bioavailability and clearance rate at the post-translational level. The major site of kallistatin synthesis is the liver with lower expression levels in the pancreas and kidney. Unlike many other serpins which are only present in the plasma, kallistatin is found in various tissues, cells and bodily fluids. The fact that both tissue kallikrein and kallistatin are widely distributed in tissues suggests kallistatin's role as a potential regulator of kallikrein outside the circulation. Protein purification and molecular cloning techniques have been used to study the structure, regulation and function of the components of the kallikrein-kinin system and for exploring their roles in ion transport, inflammation and blood pressure regulation. Considerable progress has been made in recent years to achieve these goals. This article provides an overview of the biochemical properties and potential physiological and pathophysiological roles of kallistatin.

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