Felten D L, Felten S Y, Sladek J R, Notter M D, Carlson S L, Bellinger D L, Wiegand S J
Department of Neurobiology and Anatomy, University of Rochester School of Medicine and Dentistry, NY.
J Microsc. 1990 Mar;157(Pt 3):271-83. doi: 10.1111/j.1365-2818.1990.tb02966.x.
Formaldehyde-induced and glyoxylic-acid-induced fluorescence histochemistry permits the tissue localization of catecholamines in the central nervous system (CNS) and peripheral nervous system (PNS), and in culture. Counterstains such as ethidium bromide provide excellent background identification of specific innervated regions in both the CNS and the periphery. Use of fluorescence histochemistry with immunocytochemistry can elucidate catecholamine-peptide relationships. Gelatin-ink perfusion used with fluorescence histochemistry permits the investigation of neuro-vascular relationships and documentation of vascular and parenchymal compartmentation of innervation. Combined use of fluorescence histochemistry and retrograde tracing methods demonstrates the specific cellular sources of innervation of target regions. Micropunch neurochemical analysis provides quantitative data for correlation with fluorescence histochemistry within a target region of innervation, and microspectrofluorometric analysis provides a semi-quantitative evaluation of the amount of fluorophore within a target region or within specific subcellular compartments such as the cell body or terminals.
甲醛诱导和乙醛酸诱导的荧光组织化学可实现儿茶酚胺在中枢神经系统(CNS)、外周神经系统(PNS)以及培养物中的组织定位。诸如溴化乙锭等复染剂能出色地识别CNS和外周特定的神经支配区域的背景。荧光组织化学与免疫细胞化学联合使用可阐明儿茶酚胺与肽的关系。荧光组织化学结合明胶-墨水灌注可用于研究神经-血管关系,并记录神经支配的血管和实质分区。荧光组织化学与逆行追踪方法联合使用可显示目标区域神经支配的特定细胞来源。微量打孔神经化学分析可为神经支配目标区域内与荧光组织化学相关的研究提供定量数据,而显微分光荧光测定分析可对目标区域或特定亚细胞区室(如细胞体或终末)内的荧光团数量进行半定量评估。