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数字助听器、可穿戴计算与电生理反应。

The digital hearing aid, wearable computing, and electrophysiological response.

作者信息

Doyle T E, Kucerovsky Z, Greason W D

机构信息

University of Western Ontario, Department of Electrical and Computer Engineering, London, Ontario, Canada N6A 5B9.

出版信息

Biomed Sci Instrum. 2002;38:129-34.

Abstract

Presbycusis is the most common form of hearing loss caused by aging and long-term exposure to sound energy. This type of ailment decreases the ear's ability to perceive high frequencies and localize sound, thus making comprehension more difficult. To compensate for this loss, the choice of a digital hearing aid has become more common. However, most digital hearing aids do little more that their analogue predecessor's by providing a single, fixed hearing response. Such a fixed response is not suitable for all of a user's auditory environments and typically causes a more rapid loss of hearing. Significant advancement in processing power and reduction in size of computing hardware has produced increasingly more powerful, more portable, and more personal computing devices. These advances have spurred research and development of wearable computing devices towards integrating both man and machine. By definition, the digital hearing aid is a wearable computing device. The development of a digital hearing aid with increased onboard processing that is aware of its owner's electrophysiological and auditory environments is an obvious progression. This awareness will give the hearing aid the ability to autonomously modify its own parameters to improve audibility and comprehension. Electrophysiological signals can be classified as naturally occurring or voluntarily controlled. Employing these signals will allow the hearing aid to adapt to its owner's external and internal stimuli. Research and initial experiments into the monitoring and use of electrophysiological response for the control of the digital hearing aid shall be presented.

摘要

老年性聋是由衰老和长期暴露于声能引起的最常见的听力损失形式。这种疾病会降低耳朵感知高频声音和定位声音的能力,从而使听力理解变得更加困难。为了弥补这种听力损失,选择数字助听器变得更加普遍。然而,大多数数字助听器所做的只不过是其模拟前身,提供单一的、固定的听力响应。这种固定响应并不适用于用户所有的听觉环境,通常会导致听力更快丧失。处理能力的显著进步和计算硬件尺寸的减小,已经产生了越来越强大、更便于携带和更个性化的计算设备。这些进步促使可穿戴计算设备的研发朝着人机整合的方向发展。从定义上讲,数字助听器就是一种可穿戴计算设备。开发一种具有增强板载处理能力、能够感知其所有者的电生理和听觉环境的数字助听器是一个明显的进步。这种感知能力将使助听器能够自主修改自身参数,以提高可听度和听力理解能力。电生理信号可分为自然产生的或自主控制的。利用这些信号将使助听器能够适应其所有者的外部和内部刺激。本文将介绍对用于控制数字助听器的电生理反应进行监测和利用的研究及初步实验。

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