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帕金森病作为一种昼夜节律功能的神经内分泌紊乱:多巴胺 - 褪黑素失衡与退行性病变发生和进展中的视觉系统。

Parkinson's disease as a neuroendocrine disorder of circadian function: dopamine-melatonin imbalance and the visual system in the genesis and progression of the degenerative process.

作者信息

Willis Gregory L

机构信息

The Bronowski Institute of Behavioural Neuroscience, Neurosciences Section, Coliban Medical Centre, Kyneton, Victoria, Australia.

出版信息

Rev Neurosci. 2008;19(4-5):245-316. doi: 10.1515/revneuro.2008.19.4-5.245.

DOI:10.1515/revneuro.2008.19.4-5.245
PMID:19145986
Abstract

For more than 50 years, Parkinson's disease (PD) has been conceptualized as a product of nigro-striatal dopamine (NSD) system degeneration. In spite of a growing body of evidence depicting the mammalian brain as an interrelated complexity of circuitous systems, dopamine (DA) deficiency of the NSD is still regarded as the main problem, with DA replacement being the purpose of therapeutic intervention. For at least 191 years circadian involvement in various aspects of PD, including depression and insomnia, has been recognized as an integral part of the symptom matrix of PD and yet attempts to elucidate the involvement of this system is uncharted territory. The present review attempts a major reorganization of mammalian brain into a coordinated complex involving the NSD and the retinal hypothalamic tract (RHT) as the primary systems involved in the retino-diencephalic/mesencephalic-pineal (RDMP) axis. Secondary systems including the lateral hypothalamus (LH), the area postraema (AP) and the subthalamic nucleus (STN) also form an integral part of this system as they have been shown to be either intimately related to the primary systems of the RDMP axis or have been shown to be significantly involved in the expression and treatment of PD. A large volume of evidence suggests that the RDMP axis is activated during the course of PD and during therapeutic intervention. Four types of neurotoxicity associated with melatonin are identified and the susceptibility of various parts of the RDMP axis to undergo neuropathological change, the tendency for melatonin to induce PD-like behavioural toxicity, and the relationship of this to PD symptomotology are described. This includes adverse effects of melatonin on motor function, hypotension, the adjuvant use of benzodiazepines, depression, insomnia, body weight regulation and various biochemical effects of melatonin administration: all problems currently facing the proposal to introduce melatonin as an adjuvant. It is suggested further that traditional DA replacement may well work by exerting its effect upon the circadian system, rather than simply replacing deficient DA. Activation of the circadian function by antagonizing melatonin with bright light not only has therapeutic value in treating the primary symptoms of PD but it shares a common mechanism with L-dopa in reducing the occurrence of seborrheic dermatitis. Concepts at the centre of understanding pineal function in PD, including pineal calcification, melatonin deficiency, symptomatic versus protective features of melatonin and antioxidative effects, are explained in a counterintuitive context. Intriguing propositions including the role of the retina in the aetiology of PD and that the nigra functions as a retina in this disorder are presented with the intention to provide a new understanding of the underlying compromised function in PD and to provide new treatment strategies. For the first time, abundant evidence is presented describing PD as an endocrine disorder of melatonin hyperplasia. The role of circadian interventive therapies and internal desynchrony in the aetiology and progression of PD provides a new direction for understanding the underlying physiology of a disease which is currently in a state of impasse and provides new hope for those who suffer from its debilitating effects.

摘要

五十多年来,帕金森病(PD)一直被认为是黑质纹状体多巴胺(NSD)系统退化的结果。尽管越来越多的证据表明哺乳动物大脑是一个相互关联的复杂迂回系统,但NSD多巴胺(DA)缺乏仍被视为主要问题,DA替代是治疗干预的目的。至少191年来,昼夜节律参与PD的各个方面,包括抑郁和失眠,已被认为是PD症状矩阵的一个组成部分,但试图阐明该系统的参与情况仍处于未知领域。本综述试图将哺乳动物大脑进行重大重组,使其成为一个协调的复合体,其中NSD和视网膜下丘脑束(RHT)是参与视网膜-间脑/中脑-松果体(RDMP)轴的主要系统。包括外侧下丘脑(LH)、后连合区(AP)和丘脑底核(STN)在内的次要系统也构成了该系统的一个组成部分,因为它们已被证明与RDMP轴的主要系统密切相关,或者已被证明在PD的表达和治疗中起重要作用。大量证据表明,在PD病程和治疗干预期间,RDMP轴会被激活。确定了与褪黑素相关的四种神经毒性类型,并描述了RDMP轴各部分发生神经病理变化的易感性、褪黑素诱导PD样行为毒性的倾向以及这与PD症状学的关系。这包括褪黑素对运动功能的不良影响、低血压、苯二氮卓类药物的辅助使用、抑郁、失眠、体重调节以及褪黑素给药的各种生化影响:所有这些都是目前将褪黑素作为辅助药物引入所面临的问题。进一步表明,传统的DA替代可能是通过对昼夜节律系统发挥作用而起作用,而不仅仅是替代缺乏的DA。用强光拮抗褪黑素激活昼夜节律功能不仅在治疗PD的主要症状方面具有治疗价值,而且在减少脂溢性皮炎的发生方面与左旋多巴具有共同机制。在与直觉相反的背景下解释了理解PD中松果体功能的核心概念,包括松果体钙化、褪黑素缺乏、褪黑素的症状性与保护性特征以及抗氧化作用。提出了一些有趣的观点命题,包括视网膜在PD病因中的作用以及在这种疾病中黑质起着视网膜的作用,旨在为PD潜在的功能受损提供新的理解,并提供新的治疗策略。首次提出了大量证据,将PD描述为褪黑素增生的内分泌紊乱。昼夜节律干预疗法和内源性失同步在PD病因和进展中的作用为理解这种目前处于僵局的疾病的潜在生理学提供了新方向,并为那些遭受其衰弱影响的人带来了新希望。

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