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Melatonin, Noncoding RNAs, Messenger RNA Stability and Epigenetics—Evidence, Hints, Gaps and Perspectives

机译:褪黑激素,非编码RNA,信使RNA的稳定性和表观遗传学-证据,提示,缺口和观点

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摘要

Melatonin is a highly pleiotropic regulator molecule, which influences numerous functions in almost every organ and, thus, up- or down-regulates many genes, frequently in a circadian manner. Our understanding of the mechanisms controlling gene expression is actually now expanding to a previously unforeseen extent. In addition to classic actions of transcription factors, gene expression is induced, suppressed or modulated by a number of RNAs and proteins, such as miRNAs, lncRNAs, piRNAs, antisense transcripts, deadenylases, DNA methyltransferases, histone methylation complexes, histone demethylases, histone acetyltransferases and histone deacetylases. Direct or indirect evidence for involvement of melatonin in this network of players has originated in different fields, including studies on central and peripheral circadian oscillators, shift work, cancer, inflammation, oxidative stress, aging, energy expenditure/obesity, diabetes type 2, neuropsychiatric disorders, and neurogenesis. Some of the novel modulators have also been shown to participate in the control of melatonin biosynthesis and melatonin receptor expression. Future work will need to augment the body of evidence on direct epigenetic actions of melatonin and to systematically investigate its role within the network of oscillating epigenetic factors. Moreover, it will be necessary to discriminate between effects observed under conditions of well-operating and deregulated circadian clocks, and to explore the possibilities of correcting epigenetic malprogramming by melatonin.
机译:褪黑素是高度多效性的调节分子,它影响几乎每个器官的许多功能,因此经常以昼夜节律的方式上调或下调许多基因。实际上,我们对控制基因表达的机制的理解正在扩展到前所未有的程度。除转录因子的经典作用外,基因表达还被许多RNA和蛋白质诱导,抑制或调节,例如miRNA,lncRNA,piRNA,反义转录物,腺苷酸酶,DNA甲基转移酶,组蛋白甲基化复合物,组蛋白脱甲基酶,组蛋白乙酰转移酶。和组蛋白脱乙酰基酶。褪黑激素参与该参与者网络的直接或间接证据来自不同领域,包括对中枢和外周昼夜节律振荡器,轮班工作,癌症,炎症,氧化应激,衰老,能量消耗/肥胖症,2型糖尿病,神经精神病学的研究。疾病和神经发生。还显示了一些新型调节剂参与褪黑激素生物合成和褪黑激素受体表达的控制。未来的工作将需要增加有关褪黑激素直接表观遗传作用的证据,并系统地研究其在振荡表观遗传因素网络中的作用。此外,有必要区分在良好运转的生物钟和放松的生物钟条件下观察到的影响,并探索通过褪黑激素纠正表观遗传错误编程的可能性。

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