Gliding rippled spectrum discrimination: Ripple density and gliding velocity limits

A. Supin, O. Milekhina, D. Nechaev
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Abstract

Rippled noise is a productive model of natural signals with complex spectrum patterns. It was used as a test signal to measure spectrum-pattern resolution both in normal-hearing listeners and in hearing-impaired listeners and users of cochlear implants. However, a variety of natural auditory signals feature combined spectro-temporal patterns. These signals may be modeled by rippled noise with “gliding” ripples. In the present study, ripple gliding velocity limits as a function of ripple density were measured in normal-hearing listeners. The highest gliding velocity (expressed in oct/s or ripples/s) at which the gliding ripple pattern could be distinguished from a non-rippled noise was determined. The ripple gliding velocity limit decreased from approximately 400-500 ripple/s at a ripple density of 1 ripple/oct to approximately 50 ripple/s at a ripple density of 7 ripple/oct. The data are explained by a model based on a combine action of the excitation-pattern and temporal-processing mechanisms.
滑行纹波谱鉴别:纹波密度和滑行速度限制
波纹噪声是具有复杂频谱模式的自然信号的有效模型。它被用作测试信号来测量正常听力听者、听力受损听者和人工耳蜗使用者的频谱模式分辨率。然而,各种自然听觉信号具有结合的光谱-时间模式。这些信号可以用带有“滑动”波纹的波纹噪声来模拟。在本研究中,测量了正常听力听者的纹波滑动速度极限与纹波密度的关系。确定了能够区分滑行纹波模式和非纹波噪声的最高滑行速度(以oct/s或ripple /s表示)。当纹波密度为1 ripple/oct时,纹波滑动速度极限约为400-500 ripple/s,而当纹波密度为7 ripple/oct时,速度极限约为50 ripple/s。这些数据由一个基于激励模式和时间处理机制共同作用的模型来解释。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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