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豚鼠腹侧耳蜗核中迭代波纹噪声延迟的时间表征。

The temporal representation of the delay of iterated rippled noise in the ventral cochlear nucleus of the guinea-pig.

作者信息

Winter I M, Wiegrebe L, Patterson R D

机构信息

Centre for the Neural Basis of Hearing, The Physiological Laboratory, Downing Street, Cambridge CB2 3EG, UK.

出版信息

J Physiol. 2001 Dec 1;537(Pt 2):553-66. doi: 10.1111/j.1469-7793.2001.00553.x.

DOI:10.1111/j.1469-7793.2001.00553.x
PMID:11731585
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC2278959/
Abstract
  1. We have examined the temporal discharge patterns of single units from the ventral cochlear nucleus (VCN) of anaesthetized guinea-pigs in response to iterated rippled noise (IRN). The pitch range evoked by the stimuli was from 32 to 1000 Hz. 2. Single units were classified into four groups using existing classification schemes: primary-like (PL), onset (O), sustained chopper (CS) and transient chopper (CT). For all unit types the delay of the IRN stimuli was well represented in the all-order interspike interval histograms (ISIHs). 3. A subset of the onset units (onset-chopper, OC) showed a clear preference for some delays of the IRN in their first-order interval statistics. We describe this delay preference as 'periodicity tuning'. The delay at which the pitch estimate was at its maximum was designated its best periodicity. The range of best periodicities for OC units was 3.75-13 ms (between 77 and 267 Hz). 4. The other unit types also showed enhancement of the first-order interval statistics at the delay of the IRN. The range of best periodicities was 1.4-8.8 ms (113-714 Hz) for the CT group, 2.25-10.8 ms (93-444 Hz) for the CS group and 0.5-4.6 ms (217-2000 Hz) for the PL group. 5. The correlation between the maximum interval enhancement observed in response to the IRN stimuli and the peak in the first-order ISIH in response to white noise was 0.81 for OC units, 0.72 for CS units, 0.44 for CT units and -0.15 for PL units. 6. These results demonstrate that all unit types in the VCN can enhance the representation of the delay of IRN using first-order interspike intervals (ISIs) over a range of periodicities. CS and OC units show the greatest range of best periodicities and they are well-suited to encode the delay of IRN in their first-order ISIs for a wide range of pitches.
摘要
  1. 我们研究了麻醉豚鼠腹侧耳蜗核(VCN)单个神经元对迭代波纹噪声(IRN)的时间发放模式。刺激诱发的音调范围为32至1000赫兹。2. 使用现有的分类方案将单个神经元分为四组:初级样(PL)、起始(O)、持续斩波(CS)和瞬态斩波(CT)。对于所有神经元类型,IRN刺激的延迟在全阶峰峰间隔直方图(ISIHs)中都有很好的体现。3. 一部分起始神经元(起始斩波,OC)在其一阶间隔统计中对IRN的某些延迟表现出明显的偏好。我们将这种延迟偏好描述为“周期性调谐”。音调估计达到最大值时的延迟被指定为其最佳周期性。OC神经元的最佳周期性范围为3.75 - 13毫秒(77至267赫兹之间)。4. 其他神经元类型在IRN的延迟处也表现出一阶间隔统计的增强。CT组的最佳周期性范围为1.4 - 8.8毫秒(113至714赫兹),CS组为2.25 - 10.8毫秒(93至444赫兹),PL组为0.5 - 4.6毫秒(217至2000赫兹)。5. 对于OC神经元,响应IRN刺激时观察到的最大间隔增强与响应白噪声时一阶ISIH中的峰值之间的相关性为0.81,CS神经元为0.72,CT神经元为0.44,PL神经元为 - 0.15。6. 这些结果表明,VCN中的所有神经元类型都可以使用一阶峰峰间隔(ISIs)在一系列周期性范围内增强IRN延迟的表征。CS和OC神经元表现出最大的最佳周期性范围,并且它们非常适合在其广泛音调范围内的一阶ISIs中编码IRN的延迟。