衰老和脑损伤个体的信息掩蔽。

Haleh Farahbod, Corianne Rogalsky, Lynsey M Keator, Julia Cai, Sara B Pillay, Katie Turner, Arianna LaCroix, Julius Fridriksson, Jeffrey R Binder, John C Middlebrooks, Gregory Hickok, Kourosh Saberi
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引用次数: 3

摘要

在脑损伤个体、无神经系统疾病的年龄匹配对照和年轻大学生中调查了听流分离和信息掩蔽。一种被称为节奏掩蔽释放(RMR)的心理物理范式被用来检验参与者识别20毫秒高斯噪声爆发的节奏序列变化的能力,这些噪音通过耳机呈现,并通过广义头部相关传递函数过滤,从而产生外化听觉图像(即3D虚拟现实声音)的感知。当目标和掩蔽器从同一位置呈现时(不可能完成的任务),目标节奏与包含类似噪声爆发的掩蔽序列暂时交错,从而产生一个统一的序列,没有关于目标节奏的任何信息。在空间上分离目标和掩蔽序列允许参与者确定目标节奏在呈现过程中是否有变化。RMR阈值被定义为目标序列和掩蔽序列之间的最小空间间隔,在单间隔2选项强制选择自适应跟踪过程中产生70.7%的正确性能水平。主要发现是:(1)脑损伤个体(尤其是顶叶损伤个体)的RMR阈值显著较高;(2)脑损伤(而非对照组)参与者的表现在左右空间上不对称。这些发现有助于更好地理解信息掩蔽的时空关系和听觉场景分析的神经基础。
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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Informational Masking in Aging and Brain-lesioned Individuals.

Auditory stream segregation and informational masking were investigated in brain-lesioned individuals, age-matched controls with no neurological disease, and young college-age students. A psychophysical paradigm known as rhythmic masking release (RMR) was used to examine the ability of participants to identify a change in the rhythmic sequence of 20-ms Gaussian noise bursts presented through headphones and filtered through generalized head-related transfer functions to produce the percept of an externalized auditory image (i.e., a 3D virtual reality sound). The target rhythm was temporally interleaved with a masker sequence comprising similar noise bursts in a manner that resulted in a uniform sequence with no information remaining about the target rhythm when the target and masker were presented from the same location (an impossible task). Spatially separating the target and masker sequences allowed participants to determine if there was a change in the target rhythm midway during its presentation. RMR thresholds were defined as the minimum spatial separation between target and masker sequences that resulted in 70.7% correct-performance level in a single-interval 2-alternative forced-choice adaptive tracking procedure. The main findings were (1) significantly higher RMR thresholds for individuals with brain lesions (especially those with damage to parietal areas) and (2) a left-right spatial asymmetry in performance for lesion (but not control) participants. These findings contribute to a better understanding of spatiotemporal relations in informational masking and the neural bases of auditory scene analysis.

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来源期刊
CiteScore
4.10
自引率
12.50%
发文量
57
审稿时长
6-12 weeks
期刊介绍: JARO is a peer-reviewed journal that publishes research findings from disciplines related to otolaryngology and communications sciences, including hearing, balance, speech and voice. JARO welcomes submissions describing experimental research that investigates the mechanisms underlying problems of basic and/or clinical significance. Authors are encouraged to familiarize themselves with the kinds of papers carried by JARO by looking at past issues. Clinical case studies and pharmaceutical screens are not likely to be considered unless they reveal underlying mechanisms. Methods papers are not encouraged unless they include significant new findings as well. Reviews will be published at the discretion of the editorial board; consult the editor-in-chief before submitting.
期刊最新文献
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