Petrovsky N
Autoimmunity Research Unit, Canberra Clinical School, University of Sydney and Division of Science and Design, University of Canberra, Canberra, Australian Capital Territory, Australia.
Immunol Cell Biol. 2001 Aug;79(4):350-7. doi: 10.1046/j.1440-1711.2001.01029.x.
Although the neuroendocrine system has immunomodulating potential, studies examining the relationship between stress, immunity and infection have, until recently, largely been the preserve of behavioural psychologists. Over the last decade, however, immunologists have begun to increasingly appreciate that neuroendocrine-immune interactions hold the key to understanding the complex behaviour of the immune system in vivo. The nervous, endocrine and immune systems communicate bidirectionally via shared messenger molecules variously called neurotransmitters, cytokines or hormones. Their classification as neurotransmitters, cytokines or hormones is more serendipity than a true reflection of their sphere of influence. Rather than these systems being discrete entities we would propose that they constitute, in reality, a single higher-order entity. This paper reviews current knowledge of neuroendocrine-immune interaction and uses the example of T-cell subset differentiation to show the previously under-appreciated importance of neuroendocrine influences in the regulation of immune function and, in particular, Th1/Th2 balance and diurnal variation there of.
尽管神经内分泌系统具有免疫调节潜能,但直到最近,研究压力、免疫与感染之间关系的工作在很大程度上仍是行为心理学家的专属领域。然而在过去十年间,免疫学家们越来越意识到,神经内分泌与免疫的相互作用是理解免疫系统在体内复杂行为的关键所在。神经、内分泌和免疫系统通过被统称为神经递质、细胞因子或激素的共享信使分子进行双向通讯。它们被归类为神经递质、细胞因子或激素更多是出于偶然,而非对其影响范围的真实反映。我们认为,这些系统并非离散的实体,实际上它们构成了一个单一的高阶实体。本文综述了神经内分泌与免疫相互作用的现有知识,并以T细胞亚群分化为例,展示了神经内分泌影响在免疫功能调节中,尤其是在Th1/Th2平衡及其昼夜变化方面,此前未得到充分重视的重要性。