Arakawa Y
Department of Hygiene and Preventive Medicine, Faculty of Health Sciences, University of Shizuoka, Japan.
Sangyo Eiseigaku Zasshi. 1997 Jan;39(1):1-20.
Tin generates a wide variety of biological activities deriving from its chemical character. In this article, the biological activities of tin compounds are reviewed with a focus on the connection with immunity. The table of contents is as follows: Introduction, 1. Inorganic Tin and Immunity, 2. Organic Tin and Immunity, 2.1. Immunotoxicity, 2.1.1. Immunosuppression, 2.1.2. Thymus atrophy, 2.1.3. Changes in the membrane surface antigens of T cells, 2.2. Antitumor activity, 2.3. Anti-inflammatory action, 2.4. Tolerance manifestation of thymus atrophy, 3. Cellular and Biochemical Aspects of the Activity Manifestation, 3.1. Intracellular distribution of organotins 3.2. Effects on structure and function of Golgi apparatus and endoplasmic reticulum, 3.3. Effects on physical properties of phospholipid membrane, 3.4. Suppressive effects on cell proliferation system, 3.5. Consideration, Conclusion. To sum up this article, tin compounds (especially organotin compounds) act mainly on cellular immune systems and the mechanism appears to be due to their hydrophobicity-dependent intracellular distribution and their action on the phospholipid metabolism including the inhibition of intracellular phospholipid transport between organelles through an impairment of the structure and functions of the Golgi apparatus and the endoplasmic reticulum (ER), and the consequent inhibition of the membrane-mediated signal transduction system leading to DNA synthesis via phospholipid turnover and Ca2+ mobilization.
锡因其化学特性而产生多种生物活性。本文综述了锡化合物的生物活性,重点关注其与免疫的联系。目录如下:引言、1. 无机锡与免疫、2. 有机锡与免疫、2.1. 免疫毒性、2.1.1. 免疫抑制、2.1.2. 胸腺萎缩、2.1.3. T细胞膜表面抗原的变化、2.2. 抗肿瘤活性、2.3. 抗炎作用、2.4. 胸腺萎缩的耐受性表现、3. 活性表现的细胞和生化方面、3.1. 有机锡的细胞内分布、3.2. 对高尔基体和内质网结构与功能的影响、3.3. 对磷脂膜物理性质的影响、3.4. 对细胞增殖系统的抑制作用、3.5. 思考、结论。综上所述,锡化合物(尤其是有机锡化合物)主要作用于细胞免疫系统,其机制似乎是由于它们依赖疏水性的细胞内分布以及对磷脂代谢的作用,包括通过损害高尔基体和内质网的结构与功能来抑制细胞器之间的细胞内磷脂转运,进而抑制膜介导的信号转导系统,该系统通过磷脂周转和Ca2+动员导致DNA合成。