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在欧洲椋鸟(Sturnus vulgaris)中的水平方位声音定位:II. 心理物理学结果。

Azimuthal sound localization in the European starling (Sturnus vulgaris): II. Psychophysical results.

机构信息

Animal Physiology and Behaviour Group, Research Center Neurosensory Science, C.v.O. University Oldenburg, PO Box 2503, 26111, Oldenburg, Germany.

出版信息

J Comp Physiol A Neuroethol Sens Neural Behav Physiol. 2013 Feb;199(2):127-38. doi: 10.1007/s00359-012-0774-6. Epub 2012 Nov 16.

DOI:10.1007/s00359-012-0774-6
PMID:23160796
Abstract

Small songbirds have a difficult analysis problem: their head is small compared to the wavelengths of sounds used for communication providing only small interaural time and level differences. Klump and Larsen (1992) measured the physical binaural cues in the European starling (Sturnus vulgaris) that allow the comparison of acoustical cues and perception. We determined the starling's minimum audible angle (MAA) in an operant Go/NoGo procedure for different spectral and temporal stimulus conditions. The MAA for broadband noise with closed-loop localization reached 17°, while the starling's MAA for open-loop localization of broadband noise reached 29°. No substantial difference between open-loop and closed-loop localization was found in 2 kHz pure tones. The closed-loop MAA improved from 26° to 19° with an increase in pure tone frequency from 1 to 4 kHz. This finding is in line with the physical cues available. While the starlings can only make use of interaural time difference cues at lower frequencies (e.g., 1 and 2 kHz), additional interaural level difference cues become available at higher frequencies (e.g., 4 kHz or higher, Klump and Larsen 1992). An improvement of the starling's MAA with an increasing number of standard stimulus presentations prior to the test stimulus has important implications for determining relative (MAA) localization thresholds.

摘要

小型鸣禽面临着一个困难的分析问题

与用于交流的声音波长相比,它们的头部较小,只能提供较小的耳间时间和水平差异。Klump 和 Larsen(1992)测量了欧洲椋鸟(Sturnus vulgaris)的物理双耳线索,这些线索允许对声学线索和感知进行比较。我们在不同的光谱和时间刺激条件下,通过操作性 Go/NoGo 程序确定了椋鸟的最小可听角度(MAA)。对于闭环定位的宽带噪声,MAA 达到 17°,而对于宽带噪声的开环定位,MAA 达到 29°。在 2 kHz 纯音中,开环和闭环定位之间没有实质性差异。随着纯音频率从 1 kHz 增加到 4 kHz,闭环 MAA 从 26°提高到 19°。这一发现与可用的物理线索一致。虽然椋鸟只能在较低频率(例如 1 和 2 kHz)利用耳间时间差线索,但在较高频率(例如 4 kHz 或更高频率)会出现额外的耳间水平差线索。在测试刺激之前,随着标准刺激呈现次数的增加,椋鸟的 MAA 得到改善,这对确定相对(MAA)定位阈值具有重要意义。

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