Weigent D A, Carr D J, Blalock J E
Department of Physiology and Biophysics, University of Alabama, Birmingham 35294.
Ann N Y Acad Sci. 1990;579:17-27. doi: 10.1111/j.1749-6632.1990.tb48350.x.
The results reviewed here support a molecular basis for bidirectional communication between the immune and neuroendocrine systems. The main findings can be summarized as follows: First, cells of the immune system can synthesize biologically active neuroendocrine peptide hormones. Second immune cells also possess receptors for many of these peptides. Third, these same neuroendocrine hormones can influence immune function; and fourth, lymphokines can influence neuroendocrine tissues. The interesting conceptual advance is the idea that the immune system may serve as a sensory organ. Thus, the immune system may sense stimuli that are not recognized by the central or peripheral nervous system. These stimuli are termed noncognitive and include bacteria, viruses, tumors and antigens. The recognition of such stimuli is converted into information in the form of lymphokines, monokines, and hormones and a message received by neuroendocrine tissues. On the other hand, nervous system recognition of stimuli can also be converted into chemical signals that can be relayed to immune cells resulting in physiological changes. On this basis, we predict that the pathophysiology associated with infectious agents may be related to the types and amounts of hormones produced by the immune system.
此处回顾的结果支持了免疫系统与神经内分泌系统之间双向通信的分子基础。主要发现可总结如下:第一,免疫系统的细胞能够合成具有生物活性的神经内分泌肽激素。第二,免疫细胞还拥有许多此类肽的受体。第三,这些相同的神经内分泌激素能够影响免疫功能;第四,淋巴因子能够影响神经内分泌组织。有趣的概念性进展是免疫系统可能充当感觉器官这一观点。因此,免疫系统可能感知中枢或外周神经系统无法识别的刺激。这些刺激被称为非认知性刺激,包括细菌、病毒、肿瘤和抗原。对这类刺激的识别会转化为以淋巴因子、单核因子和激素形式存在的信息,并被神经内分泌组织接收。另一方面,神经系统对刺激的识别也能够转化为化学信号,这些信号可传递给免疫细胞从而导致生理变化。基于此,我们预测与感染因子相关的病理生理学可能与免疫系统产生的激素类型和数量有关。