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卫星神经胶质细胞在内脏痛和跨器官致敏中桥接感觉神经元串扰。

Satellite Glial Cells Bridge Sensory Neuron Crosstalk in Visceral Pain and Cross-Organ Sensitization.

作者信息

Qiao Liya Y

机构信息

Department of Physiology and Biophysics, Department of Internal Medicine, Virginia Commonwealth University School of Medicine, Richmond, Virginia

出版信息

J Pharmacol Exp Ther. 2024 Jul 18;390(2):213-221. doi: 10.1124/jpet.123.002061.

Abstract

Following colonic inflammation, the uninjured bladder afferent neurons are also activated. The mechanisms and pathways underlying this sensory neuron cross-activation (from injured neurons to uninjured neurons) are not fully understood. Colonic and bladder afferent neurons reside in the same spinal segments and are separated by satellite glial cells (SGCs) and extracellular matrix in dorsal root ganglia (DRG). SGCs communicate with sensory neurons in a bidirectional fashion. This review summarizes the differentially regulated genes/proteins in the injured and uninjured DRG neurons and explores the role of SGCs in regulation of sensory neuron crosstalk in visceral cross-organ sensitization. The review also highlights the paracrine pathways in mediating neuron-SGC and SGC-neuron coupling with an emphasis on the neurotrophins and purinergic systems. Finally, I discuss the results from recent RNAseq profiling of SGCs to reveal useful molecular markers for characterization, functional study, and therapeutic targets of SGCs. SIGNIFICANCE STATEMENT: Satellite glial cells (SGCs) are the largest glial subtypes in sensory ganglia and play a critical role in mediating sensory neuron crosstalk, an underlying mechanism in colon-bladder cross-sensitization. Identification of novel and unique molecular markers of SGCs can advance the discovery of therapeutic targets in treatment of chronic pain including visceral pain comorbidity.

摘要

结肠炎症后,未受损的膀胱传入神经元也会被激活。这种感觉神经元交叉激活(从受损神经元到未受损神经元)的机制和途径尚未完全明确。结肠和膀胱传入神经元位于相同的脊髓节段,在背根神经节(DRG)中被卫星胶质细胞(SGC)和细胞外基质分隔。SGC以双向方式与感觉神经元进行交流。本综述总结了受损和未受损DRG神经元中差异调节的基因/蛋白质,并探讨了SGC在内脏跨器官致敏中调节感觉神经元串扰的作用。该综述还强调了旁分泌途径在介导神经元 - SGC和SGC - 神经元偶联中的作用,重点关注神经营养因子和嘌呤能系统。最后,我讨论了最近对SGC进行RNA测序分析的结果,以揭示用于SGC表征、功能研究和治疗靶点的有用分子标记。意义声明:卫星胶质细胞(SGC)是感觉神经节中最大的胶质细胞亚型,在介导感觉神经元串扰中起关键作用,感觉神经元串扰是结肠 - 膀胱交叉致敏的潜在机制。鉴定SGC新的独特分子标记可推动慢性疼痛(包括内脏痛合并症)治疗靶点的发现。

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