氯胺酮:不仅仅是NMDA阻滞剂

Bhargab Deka, B. Dash, Alakesh Bharali, Ashique Ahmed
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引用次数: 0

摘要

氯胺酮已在医学领域广泛应用了50多年,但其确切的作用机制尚不清楚。它被用来诱导解离性麻醉(一种深度镇痛、轻度睡眠、不动、与自己的身体和周围环境分离的健忘症)。氯胺酮作为解离性麻醉剂、精神病模型和速效抗抑郁药的临床研究引起了人们对其在分子和细胞水平上的作用的极大兴趣。它对NMDARs (N-Methyl-D-asperate)具有非竞争性抑制作用,可能优先影响中间神经元NMDARs的功能。该药的催眠作用归因于其对NMDA和HCN1受体的阻断作用;然而,胆碱、胺和阿片系统的正向和负向调节似乎都会发生。很可能氯胺酮对慢性疼痛和抑郁的影响远远超过其实际水平。这可能是由于氯胺酮引起的高谷氨酸能状态导致结构突触连通性的二次增加。这篇综述的作者试图强调氯胺酮不仅对NMDA受体的作用,而且对细胞间环境中多种生化过程和功能的作用,这可能解释了它在许多疾病中的不同作用。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Ketamine: More than Just NMDA Blocker
Ketamine has been extensively used in the medical field for more than 50 years, but its exact mechanism of action remains unknown. It\'s used to induce dissociative anesthesia (a state of profound analgesia, amnesia with light sleep, immobility, and a sense of disassociation from one\'s own body and surroundings). Clinical studies on ketamine as a dissociative anesthetic, a model for psychosis, and as a rapidly acting antidepressant have sparked great interest in understanding its effects at the molecular and cellular level. It exerts uncompetitive inhibitory effects on NMDARs (N-Methyl-D-asperate) and may preferentially affect the function of NMDARs in interneurons. The hypnotic effects of this drug are attributed to its blocking action on NMDA and HCN1 receptors; however, both positive and negative modulation of choline, amine, and opioid systems appears to occur. It is likely that ketamine\'s effect on chronic pain and depression far outlasts its actual levels. This could be due to the hyperglutamatergic state induced by ketamine causing a secondary increase in structural synaptic connectivity. The authors of this review have attempted to highlight the action of ketamine not only on NMDA receptors but also on a variety of biochemical processes and functions found in intercellular environments, which may explain its diverse role in many diseases.
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