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大鼠肾脏的外在神经支配:一项逆行追踪研究。

Extrinsic innervation of the rat kidney: a retrograde tracing study.

作者信息

Gattone V H, Marfurt C F, Dallie S

出版信息

Am J Physiol. 1986 Feb;250(2 Pt 2):F189-96. doi: 10.1152/ajprenal.1986.250.2.F189.

DOI:10.1152/ajprenal.1986.250.2.F189
PMID:3753828
Abstract

To determine the exact modalities involved in the innervation of the kidney, the present study used a nerve-tracing method with horseradish peroxidase-wheat germ agglutinin (HRP-WGA) as the tracer. Multiple injections of HRP-WGA were made in each of the left kidneys of 12 rats while another four had the HRP-WGA either dripped onto their intact renal mesothelial surface or injected intravascularly. After retrograde transport of the tracer to neurons of origin (i.e., 72-h survival), the rats were briefly perfusion fixed, tissue was removed, and cryostat sections were cut. The free-floating sections were reacted by the tetramethylbenzidine technique. Retrogradely labeled neurons were found in the celiac, bilateral inferior vagal (nodosal), and ipsilateral dorsal root (90% in T12-L1 DRG) ganglia. More labeled neurons were present in the combined vagal ganglia than in the combined DRG within each animal. This labeling was specific compared with the controls (HRP-WGA uptake via intraperitoneal or vascular routes). The celiac ganglion had many labeled neurons; however, no labeled neurons were seen in the dorsal motor nucleus of the vagus, nucleus solitarius, nucleus ambiguus, or any other brain stem structure after renal injections of HRP-WGA. This study has determined that the sympathetic nervous system (celiac ganglion) provides the only renal autonomic efferent (motor) innervation, and the nodosal (inferior vagal) ganglia appear to provide more renal sensory innervation than do the dorsal root ganglia.

摘要

为了确定肾脏神经支配的确切方式,本研究采用了以辣根过氧化物酶-小麦胚凝集素(HRP-WGA)为示踪剂的神经追踪方法。在12只大鼠的左肾中分别多次注射HRP-WGA,而另外4只大鼠则将HRP-WGA滴在其完整的肾间皮表面或进行血管内注射。在示踪剂逆行运输到起源神经元后(即存活72小时),对大鼠进行短暂灌注固定,取出组织并制作冰冻切片。将游离切片用四甲基联苯胺技术进行反应。在腹腔神经节、双侧迷走神经下神经节(结状神经节)和同侧背根神经节(90%位于T12-L1背根神经节)中发现了逆行标记的神经元。在每只动物中,迷走神经节组合中的标记神经元比背根神经节组合中的更多。与对照组(通过腹腔或血管途径摄取HRP-WGA)相比,这种标记是特异性的。腹腔神经节有许多标记神经元;然而,在肾脏注射HRP-WGA后,在迷走神经背运动核、孤束核、疑核或任何其他脑干结构中均未见到标记神经元。本研究确定,交感神经系统(腹腔神经节)提供唯一的肾脏自主传出(运动)神经支配,结状(迷走神经下)神经节似乎比背根神经节提供更多的肾脏感觉神经支配。

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