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豚鼠听觉丘脑的功能组织

Functional organization of the auditory thalamus in the guinea pig.

作者信息

Redies H, Brandner S

机构信息

Department of Neurobiology, Max-Planck-Institute of Biophysical Chemistry, Göttingen, Federal Republic of Germany.

出版信息

Exp Brain Res. 1991;86(2):384-92. doi: 10.1007/BF00228962.

DOI:10.1007/BF00228962
PMID:1756813
Abstract

The auditory thalamus of the guinea pig was investigated with microelectrode mapping techniques. Pure tones of varying frequencies and amplitudes were used as acoustic stimuli, and frequency tuning curves were recorded from 840 multi-units or single cells. The neurons in ventral nucleus of the medial geniculate body (MGv) respond vigorously to pure tones; they have mostly narrow frequency tuning curves and short response latencies (8-12 ms). The MGv is tonotopically organized: High frequencies (16-21 kHz) are located rostrally; the intermediate frequencies (2.8-11 kHz) lie caudomedial of the high frequencies, while the low frequencies (0.5-2.8 kHz) run as a continuous band from rostrolateral to caudomedial. These data confirm a model of tonotopy of the guinea pig MGv which was based on anatomical data from previous tract-tracing experiments. In these experiments, thalamocortical connections were investigated with retrogradely transported tracers (horseradish peroxidase, fluorescent dyes, Redies et al. 1989b). Dorsal, lateral and in part also ventral to MGv, the neuronal responses to pure tones were often less vigorous than in MGv. Many neurons had broad frequency tuning curves, and in nearly all recordings from this region, the response latencies were longer than 12 ms. A tonotopic organization was not apparent here. From the response properties and the location relative to MGv, we concluded that this area corresponds to the shell nucleus of the MG.

摘要

采用微电极图谱技术对豚鼠的听觉丘脑进行了研究。使用不同频率和振幅的纯音作为听觉刺激,并从840个多单元或单细胞记录了频率调谐曲线。内侧膝状体腹侧核(MGv)中的神经元对纯音有强烈反应;它们大多具有狭窄的频率调谐曲线和较短的反应潜伏期(8-12毫秒)。MGv呈音频拓扑组织:高频(16-21千赫)位于吻侧;中频(2.8-11千赫)位于高频的尾内侧,而低频(0.5-2.8千赫)从吻外侧到尾内侧呈连续带分布。这些数据证实了基于先前束路追踪实验解剖学数据的豚鼠MGv音频拓扑模型。在这些实验中,使用逆行运输示踪剂(辣根过氧化物酶、荧光染料,Redies等人,1989b)研究了丘脑皮质连接。在MGv的背侧、外侧以及部分腹侧,神经元对纯音的反应通常不如在MGv中强烈。许多神经元具有宽阔的频率调谐曲线,并且在该区域的几乎所有记录中,反应潜伏期都超过12毫秒。这里没有明显的音频拓扑组织。根据反应特性和相对于MGv的位置,我们得出结论,该区域对应于MG的壳核。

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