Wavelet Maxima Dispersion for Breathy to Tense Voice Discrimination

John Kane, C. Gobl
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引用次数: 89

Abstract

This paper proposes a new parameter, the Maxima Dispersion Quotient (MDQ), for differentiating breathy to tense voice. Maxima derived following wavelet decomposition are often used for detecting edges in image processing, where locations of these maxima organize in the vicinity of the edge location. Similarly for tense voice, which typically displays sharp glottal closing characteristics, maxima following wavelet analysis are organized in the vicinity of the glottal closure instant (GCI). Contrastingly, as the phonation type tends away from tense voice towards a breathier phonation it is observed that the maxima become increasingly dispersed. The MDQ parameter is designed to quantify the extent of this dispersion and is shown to compare favorably to existing voice quality parameters, particularly for the analysis of continuous speech. Also, classification experiments reveal a significant improvement in the detection of the voice qualities when MDQ is included as an input to the classifier. Finally, MDQ is shown to be robust to additive noise down to a Signal-to-Noise Ratio of 10 dB.
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小波最大色散在呼吸-紧张语音识别中的应用
本文提出了一个新的参数,即最大离散商(MDQ),用于区分呼吸声和紧张声。在图像处理中,经常使用小波分解后得到的极大值来检测边缘,这些极大值的位置组织在边缘位置附近。同样,对于通常表现出尖锐声门关闭特征的紧张声音,小波分析后的最大值组织在声门关闭瞬间(GCI)附近。相反,当发音类型从紧张的声音趋向于呼吸式的发音时,可以观察到最大值变得越来越分散。MDQ参数被设计用来量化这种分散的程度,并被证明与现有的语音质量参数比较有利,特别是对于连续语音的分析。此外,分类实验表明,当将MDQ作为分类器的输入时,对语音质量的检测有显著改善。最后,MDQ被证明对加性噪声具有鲁棒性,信噪比低至10 dB。
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来源期刊
IEEE Transactions on Audio Speech and Language Processing
IEEE Transactions on Audio Speech and Language Processing 工程技术-工程:电子与电气
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审稿时长
24.0 months
期刊介绍: The IEEE Transactions on Audio, Speech and Language Processing covers the sciences, technologies and applications relating to the analysis, coding, enhancement, recognition and synthesis of audio, music, speech and language. In particular, audio processing also covers auditory modeling, acoustic modeling and source separation. Speech processing also covers speech production and perception, adaptation, lexical modeling and speaker recognition. Language processing also covers spoken language understanding, translation, summarization, mining, general language modeling, as well as spoken dialog systems.
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