de Boer E, Dreschler W A
Annu Rev Psychol. 1987;38:181-202. doi: 10.1146/annurev.ps.38.020187.001145.
The study of audition has widened: Having been concentrated in the 1960s on a few topics like pitch perception, binaural hearing, and fatigue, it now spans many more subjects. In the present paper we have emphasized the following topics: frequency analysis--this topic includes spectral integration and resolution, auditory excitation patterns, and processing of spectral information; temporal analysis--this topic refers mainly to studies in which abstract and stylized temporal variations in stimuli are used; binaural hearing--a subfield that still attracts a great deal of attention because of its unique character; pitch perception--of particular interest is this field for the perception of prosodic features of speech, but it also addresses fundamental questions of how the auditory system works; and pathology of hearing--in particular the effects of impaired hearing on speech perception and the relations among various hearing-test results. (This section was written in collaboration with W. A. Dreschler.) Many of the topics discussed have a direct relation to the capabilities of the auditory system in analyzing sounds--in particular, speech sounds. Experimentally, the problem can be approached from two sides: in one the stimuli are generated in a stylized form, and in the other they are taken as distorted versions of actual speech elements. In this paper we have described mainly the first category of experiments. Whereas we know for certain that the auditory system operates in the frequency-temporal domain, it is remarkable that the distinction between fields 1 and 2 (above) can still be made. Temporal effects in frequency analysis are often considered as perturbations, and the same is true for spectral effects in the study of temporal resolution. A true integration of time and frequency is often sought but seldom achieved as the focus of study. Of the many subjects that would ideally have received more coverage we mention two: the use of additional stimulation pathways to help patients with large hearing loss or deaf-blind people, and the use of a cochlear prosthesis ("cochlear implant"). Because we lacked space to cover these topics adequately, we omitted them completely. This indicates no undervaluation of these subjects of study or of the benefits they can provide to hearing-impaired people.
在20世纪60年代,该研究主要集中在几个主题上,如音高感知、双耳听觉和疲劳,而现在它涵盖了更多的主题。在本文中,我们重点介绍了以下主题:频率分析——该主题包括频谱整合与分辨、听觉兴奋模式以及频谱信息处理;时间分析——该主题主要涉及使用抽象和程式化的刺激时间变化的研究;双耳听觉——由于其独特的性质,该子领域仍然备受关注;音高感知——该领域对于语音韵律特征的感知尤为重要,但它也涉及听觉系统如何工作的基本问题;以及听力病理学——特别是听力受损对语音感知的影响以及各种听力测试结果之间的关系。(本节与W. A. 德雷施勒合作撰写。)所讨论的许多主题都与听觉系统分析声音——特别是语音的能力直接相关。在实验中,这个问题可以从两个方面来探讨:一方面,以程式化的形式生成刺激;另一方面,将它们视为实际语音元素的失真版本。在本文中,我们主要描述了第一类实验。虽然我们确定听觉系统在频率 - 时间域中运作,但值得注意的是,仍然可以区分上述第1和第2领域。频率分析中的时间效应通常被视为干扰,时间分辨研究中的频谱效应也是如此。时间和频率的真正整合常常是研究的目标,但很少能够实现。在许多理想情况下应该有更多篇幅介绍的主题中,我们提及两个:使用额外的刺激途径来帮助重度听力损失患者或聋盲人,以及使用人工耳蜗(“耳蜗植入物”)。由于我们没有足够的篇幅来充分涵盖这些主题,所以我们完全省略了它们。这并不意味着低估这些研究主题或它们能为听力受损者带来的益处。