Circadian regulation of the immune-hematopoietic system

G. Maestroni
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Abstract

Earth’s rotation generates the basic circadian rhythm of day and night to which all living organisms must adapt to survive. In mammals, this happens thanks to a central clock located in the suprachiasmatic nucleus (SCN) of the hypothalamus and to peripheral clock genes at the cellular level. The main environmental cue capable of synchronizing such clocks is light sensed by retinal ganglion cells signaling through a complex nervous pathway to the pineal gland which ultimately regulates melatonin synthesis that occurs during the night, darkness hours in all mammals. The central clock synchronized by melatonin drives the circadian oscillation of the sympathetic nervous system (SNS) adrenergic activity which in turn controls glucocorticoid production in the adrenal glands. These oscillations are integrated with peripheral cellular clocks by still not completely understood mechanisms and drive the homeostatic control of activity-rest (sleep) cycles, cardiovascular activity, body temperature, and immune-hematopoietic functions. The neuronal and hormonal mechanisms governing the circadian oscillation of hematopoiesis and immunity will be addressed in this review focusing on those offering therapeutic perspectives.
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免疫-造血系统的昼夜节律调节
地球的自转产生了昼夜的基本昼夜节律,所有生物都必须适应昼夜节律才能生存。在哺乳动物中,这种情况的发生要归功于位于下丘脑视交叉上核(SCN)的中央时钟和细胞水平上的外周时钟基因。能够同步这些时钟的主要环境线索是视网膜神经节细胞通过复杂的神经通路向松果体发出信号,最终调节所有哺乳动物在夜间、黑暗时刻发生的褪黑激素合成。褪黑激素同步的中央时钟驱动交感神经系统(SNS)肾上腺素能活动的昼夜节律振荡,进而控制肾上腺中糖皮质激素的产生。这些振荡与外周细胞时钟相结合,其机制尚不完全清楚,并驱动活动-休息(睡眠)周期、心血管活动、体温和免疫-造血功能的稳态控制。神经和激素机制控制造血和免疫的昼夜节律振荡将在这篇综述中重点讨论那些提供治疗的观点。
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