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精氨酸与免疫

Arginine and immunity.

作者信息

Popovic Petar J, Zeh Herbert J, Ochoa Juan B

机构信息

Department of Surgery, University of Pittsburgh Medical School, Pittsburgh, PA 15213, USA.

出版信息

J Nutr. 2007 Jun;137(6 Suppl 2):1681S-1686S. doi: 10.1093/jn/137.6.1681S.

DOI:10.1093/jn/137.6.1681S
PMID:17513447
Abstract

For many years, dietary arginine supplementation, often combined with other substances, has been used as a mechanism to boost the immune system. Considerable controversy, however, exists as to the benefits and indications of dietary arginine due in part to a poor understanding of the role played by this amino acid in maintaining immune function. Emerging knowledge promises to clear this controversy and allow for arginine's safe use. In myeloid cells, arginine is mainly metabolized either by inducible nitric oxide (NO) synthases (iNOS) or by arginase 1, enzymes that are stimulated by T helper 1 or 2 cytokines, respectively. Thus, activation of iNOS or arginase (or both) reflects the type of inflammatory response in a specific disease process. Myeloid suppressor cells (MSC) expressing arginase have been described in trauma (in both mice and humans), intra-abdominal sepsis, certain infections, and prominently, cancer. Myeloid cells expressing arginase have been shown to accumulate in patients with cancer. Arginase 1 expression is also detected in mononuclear cells after trauma or surgery. MSC efficiently deplete arginine and generate ornithine. Through arginine depletion, MSC may control NO production and regulate other arginine-dependent biological processes. Low circulating arginine has been documented in trauma and cancer, suggesting that MSC may exert a systemic effect and cause a state of arginine deficiency. Simultaneously, T lymphocytes depend on arginine for proliferation, zeta-chain peptide and T-cell receptor complex expression, and the development of memory. T-cells cocultured with MSC exhibit the molecular and functional effects associated with arginine deficiency. Not surprisingly, T-cell abnormalities, including decreased proliferation and loss of the zeta-chain, are observed in cancer and after trauma.

摘要

多年来,膳食补充精氨酸(通常与其他物质联合使用)一直被用作增强免疫系统的一种手段。然而,关于膳食精氨酸的益处和适用症存在相当大的争议,部分原因是对这种氨基酸在维持免疫功能中所起的作用了解不足。新出现的知识有望消除这一争议,并使精氨酸得以安全使用。在髓系细胞中,精氨酸主要通过诱导型一氧化氮合酶(iNOS)或精氨酸酶1进行代谢,这两种酶分别由辅助性T细胞1型或2型细胞因子刺激。因此,iNOS或精氨酸酶(或两者)的激活反映了特定疾病过程中的炎症反应类型。在创伤(小鼠和人类)、腹腔内脓毒症、某些感染以及尤其是癌症中,已经发现了表达精氨酸酶的髓系抑制细胞(MSC)。在癌症患者中,已显示表达精氨酸酶的髓系细胞会积聚。在创伤或手术后的单核细胞中也检测到精氨酸酶1的表达。MSC能够有效消耗精氨酸并生成鸟氨酸。通过消耗精氨酸,MSC可能控制一氧化氮的产生并调节其他依赖精氨酸的生物学过程。在创伤和癌症中已记录到循环精氨酸水平较低,这表明MSC可能发挥全身作用并导致精氨酸缺乏状态。同时,T淋巴细胞的增殖、ζ链肽和T细胞受体复合物的表达以及记忆的形成都依赖于精氨酸。与MSC共培养的T细胞表现出与精氨酸缺乏相关的分子和功能效应。毫不奇怪,在癌症患者和创伤后会观察到T细胞异常,包括增殖减少和ζ链缺失。

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