Improving the Intelligibility of Electric and Acoustic Stimulation Speech Using Fully Convolutional Networks Based Speech Enhancement
Natalie Yu-Hsien Wang, Hsiao-Lan Sharon Wang, Tao-Wei Wang, Szu-Wei, Fu, Xugan Lu, Yu Tsao, Hsin-Min Wang

TL;DR
This study evaluates a fully convolutional neural network-based speech enhancement method for electric and acoustic stimulation, demonstrating improved speech intelligibility in noisy environments compared to traditional methods.
Contribution
First to assess deep learning-based speech enhancement for EAS, showing that FCN(S) outperforms traditional methods in noisy conditions.
Findings
FCN(S) improves speech intelligibility in noisy environments.
Outperforms traditional MMSE and autoencoder methods.
Effective for both normal and vocoded speech.
Abstract
The combined electric and acoustic stimulation (EAS) has demonstrated better speech recognition than conventional cochlear implant (CI) and yielded satisfactory performance under quiet conditions. However, when noise signals are involved, both the electric signal and the acoustic signal may be distorted, thereby resulting in poor recognition performance. To suppress noise effects, speech enhancement (SE) is a necessary unit in EAS devices. Recently, a time-domain speech enhancement algorithm based on the fully convolutional neural networks (FCN) with a short-time objective intelligibility (STOI)-based objective function (termed FCN(S) in short) has received increasing attention due to its simple structure and effectiveness of restoring clean speech signals from noisy counterparts. With evidence showing the benefits of FCN(S) for normal speech, this study sets out to assess its ability…
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Taxonomy
TopicsSpeech and Audio Processing · Hearing Loss and Rehabilitation · Acoustic Wave Phenomena Research
