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无尾目听觉神经的周期性提取。I. “音高偏移”效应。

Periodicity extraction in the anuran auditory nerve. I. "Pitch-shift" effects.

作者信息

Simmons A M, Ferragamo M

机构信息

Department of Psychology, Brown University, Providence, RI 02912.

出版信息

J Comp Physiol A. 1993 Feb;172(1):57-69. doi: 10.1007/BF00214715.

DOI:10.1007/BF00214715
PMID:8445580
Abstract
  1. Activity of individual eight nerve fibers in the bullfrog, Rana catesbeiana, was measured in response to complex, multiple-frequency stimuli differing in both frequency composition and harmonic structure. Stimuli were chosen to parallel types of stimuli producing "pitch-shift" effects in humans. 2. The fundamental frequency of harmonic stimuli can be extracted from the autocorrelation of fiber firing, whether the fundamental is physically present in the stimulus or is a "missing" fundamental. The spectral fine-structure of harmonic stimuli is not robustly represented in fiber temporal response. These effects are seen in both AP and BP fibers. 3. The pseudoperiod of inharmonic stimuli is represented by synchronization to successive high-amplitude peaks in the stimulus envelope. Temporal responses to stimuli with high center frequencies are similar regardless of whether their frequency components are harmonically or inharmonically related. Responses remain dominated by the envelope periodicity, and no "pitch-shift" is signaled. In response to stimuli with low center frequencies, temporal responses signal a "pitch-shift" between harmonic and inharmonic complexes. Both AP and BP fibers show these effects. 4. These data suggest that bullfrog peripheral fibers extract the periodicity of complex stimuli by time-domain rather than frequency-domain coding.
摘要
  1. 测量了牛蛙(Rana catesbeiana)中八条单根神经纤维对频率组成和谐波结构均不同的复杂多频刺激的反应。所选择的刺激与在人类中产生“音高偏移”效应的刺激类型相似。2. 谐波刺激的基频可从纤维放电的自相关中提取,无论该基频在刺激中实际存在还是为“缺失”基频。谐波刺激的频谱精细结构在纤维时间响应中未得到有力体现。这些效应在AP纤维和BP纤维中均可见。3. 非谐波刺激的伪周期通过与刺激包络中连续高振幅峰值的同步来体现。对中心频率较高的刺激的时间响应相似,无论其频率成分是谐波相关还是非谐波相关。响应仍以包络周期性为主导,且未发出“音高偏移”信号。对中心频率较低的刺激的响应中,时间响应表明谐波复合体与非谐波复合体之间存在“音高偏移”。AP纤维和BP纤维均显示出这些效应。4. 这些数据表明牛蛙外周纤维通过时域而非频域编码来提取复杂刺激的周期性。

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