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豚鼠下丘记录的电诱发反应与声诱发反应的双耳相互作用。

Binaural interactions of electrically and acoustically evoked responses recorded from the inferior colliculus of guinea pigs.

作者信息

Noh Heil, Abbas Paul J, Abbas Charles A, Nourski Kirill V, Robinson Barbara K, Jeng Fuh-Cherng

机构信息

Department of Otolaryngology-Head and Neck Surgery, College of Medicine, The Catholic University of Korea, Seoul, Korea.

出版信息

Int J Audiol. 2007 Jun;46(6):309-20. doi: 10.1080/14992020701212622.

Abstract

Binaural interactions within the inferior colliculus (IC) elicited by electric and acoustic stimuli were investigated in this study. Using a guinea pig model, binaural acoustic stimuli were presented with different time delays, as were combinations of binaural electric and acoustic stimuli. Averaged evoked potentials were measured using electrodes inserted into the central nucleus of the IC to obtain the binaural interaction component (BIC), computed by subtracting the sum of the two monaural responses from the binaural response. The BICs to acoustic-acoustic stimulation and electric-acoustic stimulation were found to be similar. The BIC amplitude increased with stimulus intensity, but the shapes of the delay functions were similar across the levels tested. The gross-potential data are thus consistent with the thesis that the central auditory system processes binaural electric and acoustic stimuli in a similar manner. These results suggest that the binaural auditory system can process combinations of electric and acoustic stimulation presented across ears and that evoked gross potentials may be used to measure such interaction.

摘要

本研究对电刺激和声音刺激引发的下丘(IC)内双耳相互作用进行了调查。使用豚鼠模型,呈现了具有不同时间延迟的双耳声音刺激,以及双耳电刺激和声音刺激的组合。通过插入IC中央核的电极测量平均诱发电位,以获得双耳相互作用成分(BIC),其计算方法是从双耳反应中减去两个单耳反应的总和。发现声音-声音刺激和电-声音刺激的BIC相似。BIC幅度随刺激强度增加,但在测试的各个水平上延迟函数的形状相似。因此,总体电位数据与中枢听觉系统以类似方式处理双耳电刺激和声音刺激这一论点一致。这些结果表明,双耳听觉系统可以处理跨耳呈现的电刺激和声音刺激的组合,并且诱发的总体电位可用于测量这种相互作用。

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