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鸽子端脑的躯体感觉区。II. 脊髓通路和传入连接。

Somatosensory areas in the telencephalon of the pigeon. II. Spinal pathways and afferent connections.

作者信息

Funke K

机构信息

Institut für Tierphysiologie, Ruhr-Universität, Bochum, Federal Republic of Germany.

出版信息

Exp Brain Res. 1989;76(3):620-38. doi: 10.1007/BF00248918.

DOI:10.1007/BF00248918
PMID:2792249
Abstract

There are two somatosensory areas in the telencephalon of the pigeon which receive an input from the spinal somatosensory system: one in the rostral Wulst which consists of the three hyperstriatal layers (h. accessorium (HA), h. intercalatus superior (HIS) and h. dorsale (HD] and one in the caudal telencephalon (neostriatum caudale (NC), neostriatum intermedium (NI) and hyperstriatum ventrale (HV]. Recordings of evoked single unit or multi unit activity and of field potentials before and after lesions of spinal pathways at a high cervical level (C4) were made to determine the contribution of these pathways to the transmission of somatosensory signals to these telencephalic areas. The rostral Wulst area receives somatic signals only through dorsal tracts contralateral to the recording site. Inputs from the wing arise mainly through the dorsal columns (DC) and those from the leg largely through the dorsolateral funiculus (DLF). The spinal projection pathway to the caudal neostriatal area includes the dorsal tracts and parts of the lateral funiculi on both sides. There was no difference in response form between the wing and leg responses. Signals transmitted through the lateral pathways were found to elicit the earliest responses (6-13 ms, electrical stimulation) in the caudal forebrain, while signals travelling through the DC arrive later in the caudal area (about 14 ms for wing stimulation) than in the rostral Wulst area (about 9 ms). The afferent thalamic and intratelencephalic connections of the two somatosensory areas in the telencephalon of the pigeon were investigated with retrograde transport of the neuronal tracers horseradish-peroxidase (HRP) or wheatgerm agglutinated HRP (WGA-HRP), Fast Blue (FB) and Rhodamine-isothiocyanat (RITC). Small tracer-injections were made under electrophysiological control at somatosensory responsive locations. These investigations confirm the projection of the caudal part of the nucleus dorsolateralis posterior (DLPc) to the caudal area and of the nucleus dorsalis intermedius ventralis anterior (DIVA) to the rostral area. In addition, it could be shown that the NI/NC projects to the HV thus confirming the electrophysiological results reported in a companion paper (Funke 1989) that the HV is a secondary area. The integrative function of HV is supported by connections to other sensory and motor telencephalic areas. Combined injections of FB and RITC revealed a topographic projection from the DIVA to the anterior Wulst.(ABSTRACT TRUNCATED AT 400 WORDS)

摘要

鸽子端脑中有两个躯体感觉区,它们接收来自脊髓躯体感觉系统的输入:一个位于吻侧的中脑嵴,由三个超纹状体层(副超纹状体(HA)、上中间超纹状体(HIS)和背侧超纹状体(HD))组成;另一个位于尾端脑(尾侧新纹状体(NC)、中间新纹状体(NI)和腹侧超纹状体(HV))。在高颈段(C4)脊髓通路损伤前后,记录诱发的单单位或多单位活动以及场电位,以确定这些通路对躯体感觉信号向这些端脑区域传递的贡献。吻侧中脑嵴区域仅通过与记录部位对侧的背侧束接收躯体信号。来自翅膀的输入主要通过背柱(DC),来自腿部的输入主要通过背外侧索(DLF)。通往尾侧新纹状体区域的脊髓投射通路包括两侧的背侧束和部分外侧索。翅膀和腿部反应的反应形式没有差异。发现通过外侧通路传递的信号在尾端前脑引发最早的反应(6 - 13毫秒,电刺激),而通过背柱传播的信号在尾侧区域比在吻侧中脑嵴区域到达得晚(翅膀刺激约14毫秒)(吻侧中脑嵴区域约9毫秒)。利用神经元示踪剂辣根过氧化物酶(HRP)或小麦胚凝集素HRP(WGA - HRP)、快蓝(FB)和异硫氰酸罗丹明(RITC)的逆行运输,研究了鸽子端脑两个躯体感觉区的丘脑传入和脑内连接。在电生理控制下,在躯体感觉反应部位进行小剂量示踪剂注射。这些研究证实了背外侧后核(DLPc)尾侧部分向尾侧区域的投射以及背内侧腹侧前核(DIVA)向吻侧区域的投射。此外,还可以表明NI/NC投射到HV,从而证实了一篇相关论文(Funke,1989年)中报道的电生理结果,即HV是一个次级区域。HV的整合功能得到了与其他感觉和运动端脑区域连接的支持。FB和RITC的联合注射揭示了从DIVA到前中脑嵴的拓扑投射。(摘要截取自400字)

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