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阈下微结构与耳声发射之间关联性质的研究。

Investigations into the nature of the association between threshold microstructure and otoacoustic emissions.

作者信息

Long G R, Tubis A

机构信息

Department of Audiology, Purdue University, West Lafayette, Indiana 47907.

出版信息

Hear Res. 1988 Nov;36(2-3):125-38. doi: 10.1016/0378-5955(88)90055-x.

DOI:10.1016/0378-5955(88)90055-x
PMID:3209487
Abstract

Three studies are described which investigate the nature of the association between threshold microstructure and otoacoustic emissions. In the first study, threshold dips (similar in shape to those seen in threshold microstructure) are produced by introducing a low-level masker. Threshold microstructure is not abolished when tonal probes are replaced by narrowband-noise probes, while dips induced by external tonal maskers are eliminated. These findings rule out a simple interpretation of the microstructure dips as an instance of masking by otoacoustic emissions. In the second study, ear-canal measurements of the interactions of external tones with spontaneous emissions indicate that, although beating is often detected near threshold maxima, stimuli close to threshold minima are perceived as tonal because the emission is frequency locked by the external tone. The last study shows that reduction of the levels of otoacoustic emissions by aspirin consumption is associated with an initial reduction of thresholds in regions of threshold microstructure, with the greatest reduction occurring at threshold maxima. This suggests that threshold maxima may be due, at least in part, to interference or masking by the nearby otoacoustic emissions. A simple analog (driven Van der Pol oscillator) of an external tone interacting with a spontaneous emission is used to interpret ear-canal pressure waveforms and associated psychophysical percepts (including threshold detection), for tones close in frequency to emissions.

摘要

本文描述了三项研究,这些研究探讨了阈值微结构与耳声发射之间关联的本质。在第一项研究中,通过引入低强度掩蔽音来产生阈值下降(其形状与阈值微结构中所见的类似)。当用窄带噪声探头取代纯音探头时,阈值微结构并未消除,而由外部纯音掩蔽音引起的下降则被消除。这些发现排除了将微结构下降简单解释为耳声发射掩蔽实例的可能性。在第二项研究中,对耳道中外部纯音与自发发射相互作用的测量表明,尽管在阈值最大值附近经常检测到拍频,但接近阈值最小值的刺激被感知为纯音,因为发射被外部纯音频率锁定。最后一项研究表明,服用阿司匹林降低耳声发射水平与阈值微结构区域的阈值最初降低有关,最大降幅出现在阈值最大值处。这表明阈值最大值可能至少部分是由于附近耳声发射的干扰或掩蔽所致。对于频率接近发射频率的纯音,使用外部纯音与自发发射相互作用的简单模拟(驱动范德波尔振荡器)来解释耳道压力波形和相关的心理物理学感知(包括阈值检测)。

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