光神经内分泌、昼夜节律和季节系统:从光神经内分泌学到昼夜节律生物学和医学

IF 3.2 3区 生物学 Q3 CELL BIOLOGY
Horst-Werner Korf
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引用次数: 0

摘要

这篇论文重点介绍了光神经内分泌学和昼夜节律生物学这两个相互交织的学科的科学发展。光神经内分泌学主要研究将光刺激转化为神经内分泌信号并起到节律调节作用的非视觉光感受器。非哺乳动物松果体复合体和大脑中首次描述的非视觉光感受器是亮度探测器。在松果体中,它们控制着褪黑激素的形成,褪黑激素是一种高度保守的黑暗激素,每晚都在合成。具有感光和神经内分泌能力的松果体细胞具有 "光神经内分泌细胞 "的功能。在成年哺乳动物中,控制松果体褪黑激素生物合成和瞳孔反射的非视觉光感受器不在松果体和大脑中,只出现在视网膜内层。脑感光器调节季节性节律,如生殖周期。它们集中在脑室周围器官、侧隔器官和室旁器官中,是脑脊液接触神经元的代表。非视觉光感受器采用不同的光敏色素,如黑视蛋白、瞳孔蛋白、副瞳孔蛋白、神经蛋白和脊椎动物古视蛋白。在确定了时钟基因和分子钟之后,昼夜节律生物学成为以节律产生为重点的前沿研究。分子钟表在每个有核细胞中滴答作响,如哺乳动物所示,它们驱动着 3000 多个基因的表达,对细胞增殖和新陈代谢的调控具有重要意义。哺乳动物的昼夜节律系统是分级组织的;中央节律发生器位于嗜上核,它通过多种神经元和神经内分泌途径控制外周昼夜节律振荡器。分子时钟紊乱可能导致各种疾病,对这种相互作用的研究将建立一门新学科:昼夜节律医学。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Photoneuroendocrine, circadian and seasonal systems: from photoneuroendocrinology to circadian biology and medicine

Photoneuroendocrine, circadian and seasonal systems: from photoneuroendocrinology to circadian biology and medicine

This contribution highlights the scientific development of two intertwined disciplines, photoneuroendocrinology and circadian biology. Photoneuroendocrinology has focused on nonvisual photoreceptors that translate light stimuli into neuroendocrine signals and serve rhythm entrainment. Nonvisual photoreceptors first described in the pineal complex and brain of nonmammalian species are luminance detectors. In the pineal, they control the formation of melatonin, the highly conserved hormone of darkness which is synthesized night by night. Pinealocytes endowed with both photoreceptive and neuroendocrine capacities function as “photoneuroendocrine cells.” In adult mammals, nonvisual photoreceptors controlling pineal melatonin biosynthesis and pupillary reflexes are absent from the pineal and brain and occur only in the inner layer of the retina. Encephalic photoreceptors regulate seasonal rhythms, such as the reproductive cycle. They are concentrated in circumventricular organs, the lateral septal organ and the paraventricular organ, and represent cerebrospinal fluid contacting neurons. Nonvisual photoreceptors employ different photopigments such as melanopsin, pinopsin, parapinopsin, neuropsin, and vertebrate ancient opsin. After identification of clock genes and molecular clockwork, circadian biology became cutting-edge research with a focus on rhythm generation. Molecular clockworks tick in every nucleated cell and, as shown in mammals, they drive the expression of more than 3000 genes and are of overall importance for regulation of cell proliferation and metabolism. The mammalian circadian system is hierarchically organized; the central rhythm generator is located in the suprachiasmatic nuclei which entrain peripheral circadian oscillators via multiple neuronal and neuroendocrine pathways. Disrupted molecular clockworks may cause various diseases, and investigations of this interplay will establish a new discipline: circadian medicine.

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来源期刊
Cell and Tissue Research
Cell and Tissue Research 生物-细胞生物学
CiteScore
7.00
自引率
2.80%
发文量
142
审稿时长
1 months
期刊介绍: The journal publishes regular articles and reviews in the areas of molecular, cell, and supracellular biology. In particular, the journal intends to provide a forum for publishing data that analyze the supracellular, integrative actions of gene products and their impact on the formation of tissue structure and function. Submission of papers with an emphasis on structure-function relationships as revealed by recombinant molecular technologies is especially encouraged. Areas of research with a long-standing tradition of publishing in Cell & Tissue Research include: - neurobiology - neuroendocrinology - endocrinology - reproductive biology - skeletal and immune systems - development - stem cells - muscle biology.
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