阿片受体和阿片受体在体内的神经元共表达揭示了新的治疗前景。

Eric Erbs, Lauren Faget, Pierre Veinante, Brigitte L Kieffer, Dominique Massotte
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引用次数: 15

摘要

阿片受体属于G蛋白偶联受体家族。它们调节着各个层次的神经整合的大脑功能,因此影响着自主、感觉、情感和认知的处理。在体内,阿片受体和阿片受体之间的功能相互作用是已知的,尽管相互作用是否发生在电路,细胞或分子水平上仍存在争议。此外,通过mu- δ异构体的受体串扰的概念在体外得到了很好的记录,但在体内的证据仍然很少。为了识别可能发生受体相互作用的神经元,我们设计了一种独特的双突变敲入小鼠系,表达功能性红色荧光mu受体和绿色荧光δ受体。我们绘制了整个神经系统中mu和delta受体的分布和共定位,并在亚细胞分辨率上创建了第一个具有伴随mu-delta可视化的交互式脑图谱(http://mordor.ics-mci.fr/)。Mu和delta受体在皮层下网络的神经元中共定位,但主要在前脑的单独神经元中检测到。此外,共免疫沉淀实验表明,海马体中存在物理接近,这是mu-delta异聚化的先决条件。总的来说,数据表明mu-delta功能相互作用发生在高阶情绪和认知处理的系统水平上,而mu-delta可能在细胞水平上相互作用于生存所必需的大脑网络,这对疼痛控制、药物成瘾和饮食失调的创新药物设计具有潜在的影响。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
In vivo neuronal co-expression of mu and delta opioid receptors uncovers new therapeutic perspectives.

Opioid receptors belong to the G protein coupled receptor family. They modulate brain function at all levels of neural integration and therefore impact on autonomous, sensory, emotional and cognitive processing. In vivo functional interaction between mu and delta opioid receptors are known to take place though it is still debated whether interactions occur at circuitry, cellular or molecular level. Also, the notion of receptor crosstalk via mu-delta heteromers is well documented in vitro but in vivo evidence remains scarce. To identify neurons in which receptor interactions could take place, we designed a unique double mutant knock-in mouse line that expresses functional red-fluorescent mu receptors and green-fluorescent delta receptors. We mapped mu and delta receptor distribution and co-localization throughout the nervous system and created the first interactive brain atlas with concomitant mu-delta visualization at subcellular resolution (http://mordor.ics-mci.fr/). Mu and delta receptors co-localize in neurons from subcortical networks but are mainly detected in separate neurons in the forebrain. Also, co-immunoprecipitation experiments indicated physical proximity in the hippocampus, a prerequisite to mu-delta heteromerization. Altogether, data suggest that mu-delta functional interactions take place at systems level for high-order emotional and cognitive processing whereas mu-delta may interact at cellular level in brain networks essential for survival, which has potential implications for innovative drug design in pain control, drug addiction and eating disorders.

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