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人类高频点击诱发耳声发射与行为阈值

High-frequency click-evoked otoacoustic emissions and behavioral thresholds in humans.

作者信息

Goodman Shawn S, Fitzpatrick Denis F, Ellison John C, Jesteadt Walt, Keefe Douglas H

机构信息

Boys Town National Research Hospital, Omaha, Nebraska 68131, USA.

出版信息

J Acoust Soc Am. 2009 Feb;125(2):1014-32. doi: 10.1121/1.3056566.

Abstract

Relationships between click-evoked otoacoustic emissions (CEOAEs) and behavioral thresholds have not been explored above 5 kHz due to limitations in CEOAE measurement procedures. New techniques were used to measure behavioral thresholds and CEOAEs up to 16 kHz. A long cylindrical tube of 8 mm diameter, serving as a reflectionless termination, was used to calibrate audiometric stimuli and design a wideband CEOAE stimulus. A second click was presented 15 dB above a probe click level that varied over a 44 dB range, and a nonlinear residual procedure extracted a CEOAE from these click responses. In some subjects (age 14-29 years) with normal hearing up to 8 kHz, CEOAE spectral energy and latency were measured up to 16 kHz. Audiometric thresholds were measured using an adaptive yes-no procedure. Comparison of CEOAE and behavioral thresholds suggested a clinical potential of using CEOAEs to screen for high-frequency hearing loss. CEOAE latencies determined from the peak of averaged, filtered temporal envelopes decreased to 1 ms with increasing frequency up to 16 kHz. Individual CEOAE envelopes included both compressively growing longer-delay components consistent with a coherent-reflection source and linearly or expansively growing shorter-delay components consistent with a distortion source. Envelope delays of both components were approximately invariant with level.

摘要

由于瞬态诱发耳声发射(CEOAEs)测量程序的限制,5kHz以上的CEOAEs与行为阈值之间的关系尚未得到研究。采用新技术测量高达16kHz的行为阈值和CEOAEs。使用一根直径8mm的长圆柱形管作为无反射终端,用于校准听力测量刺激并设计宽带CEOAEs刺激。在一个在44dB范围内变化的探测点击水平之上15dB处呈现第二个点击,并且非线性残差程序从这些点击响应中提取出一个CEOAEs。在一些听力在8kHz以下正常的受试者(年龄14 - 29岁)中,测量了高达16kHz的CEOAEs频谱能量和潜伏期。使用自适应是/否程序测量听力阈值。CEOAEs与行为阈值的比较表明,使用CEOAEs筛查高频听力损失具有临床潜力。从平均滤波后的时间包络峰值确定的CEOAEs潜伏期随着频率增加到16kHz时降至1ms。单个CEOAEs包络既包括与相干反射源一致的压缩性增长的长延迟分量,也包括与失真源一致的线性或膨胀性增长的短延迟分量。两个分量的包络延迟随水平大致不变。

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