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自适应动态范围优化(ADRO):一种用于助听器和人工耳蜗的数字放大策略。

Adaptive dynamic range optimization (ADRO): a digital amplification strategy for hearing aids and cochlear implants.

作者信息

Blamey Peter J

机构信息

Dynamic Hearing Pty Ltd, Richmond, Victoria, Australia.

出版信息

Trends Amplif. 2005;9(2):77-98. doi: 10.1177/108471380500900203.

Abstract

Adaptive dynamic range optimization (ADRO) is an amplification strategy that uses digital signal processing techniques to improve the audibility, comfort, and intelligibility of sounds for people who use cochlear implants and/or hearing aids. The strategy uses statistical analysis to select the most information-rich section of the input dynamic range in multiple-frequency channels. Fuzzy logic rules control the gain in each frequency channel so that the selected section of the dynamic range is presented at an audible and comfortable level. The ADRO processing thus adaptively optimizes the dynamic range of the signal in multiple-frequency channels. Clinical studies show that ADRO can be fitted easily to all degrees of hearing loss for hearing aids and cochlear implants in a direct and intuitive manner, taking the preferences of the listener into account. The result is high acceptance by new and experienced hearing aid users and strong preferences for ADRO compared with alternative amplification strategies. The ADRO processing is particularly well suited to bimodal and hybrid stimulation which combine electric and acoustic stimulation in opposite ears or in the same ear, respectively.

摘要

自适应动态范围优化(ADRO)是一种放大策略,它使用数字信号处理技术来提高使用人工耳蜗和/或助听器的人的声音可听度、舒适度和清晰度。该策略使用统计分析来选择多频通道中输入动态范围里信息最丰富的部分。模糊逻辑规则控制每个频率通道的增益,以便将动态范围的选定部分呈现为可听且舒适的水平。因此,ADRO处理可自适应地优化多频通道中信号的动态范围。临床研究表明,ADRO可以直接且直观地轻松适配于各种程度听力损失的助听器和人工耳蜗,同时考虑到聆听者的偏好。结果是,新的和有经验的助听器使用者对其接受度很高,与其他放大策略相比,对ADRO有强烈的偏好。ADRO处理特别适合分别在双耳或同一耳中结合电刺激和声刺激的双模式和混合刺激。

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