基于毫米波压电效应的语音采集与恢复

Kaidi Zheng, Chao Wang, Zhanglei Shu, Feng Lin
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引用次数: 2

摘要

本文提出了一种新的语音采集方法,直接感知在空气中传播的声波,而不是利用声诱发振动。其基本原理是,当声波击中压电薄膜时,由于压电效应,压电薄膜可以引起入射毫米波信号的变化。此外,我们发现毫米波信号可以穿透常见的隔音材料,这为穿越障碍的语音恢复铺平了道路。在此基础上,我们提出了一种从反射毫米波信号中解码相位解调音频信号的新机制。针对毫米波信号的穿透和传播损耗,我们进一步开发了一种基于深度神经网络的语音增强方法。该网络可以对原始恢复语音进行过滤,重构出具有较高语音质量和清晰度的干净语音。我们在一个公共数据集上评估了所提出的系统。结果表明,在遮挡情况下,该系统可以在5m距离内恢复高质量和可理解的语音。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Speech Acquisition and Recovery Based on Piezoelectric Effect in the mmWave Band
This paper proposes a novel speech acquisition method to directly sense the sound waves travelling through the air rather than leveraging the sound-induced vibration. The rationale is that the piezoelectric film can cause changes to the incident mmWave signals due to the piezoelectric effect when sound waves hit the film. Moreover, we find that the mmWave signals can penetrate common soundproofing materials, which pave the way for through-obstacle speech recovery. Based on this, we propose a new mechanism to decode the phase-demodulated audio signals from the reflected mmWave signals. To combat the penetrating and propagation loss of mmWave signals, we further developed a speech enhancement method based on the deep neural network. The network can filter the raw recovered speech and reconstruct clean speech with higher speech quality and intelligibility. We evaluate the proposed system on a public dataset. The results indicate that the system can recover high-quality and intelligible speech from a distance of 5m in the case of occlusion.
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