A Complex Plane Spectral Subtraction Method for Vehicle Interior Speaker Recognition Systems

Shuiping Wang, Shiqiang Li, Chunnian Fan
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引用次数: 1

Abstract

The performance of speaker recognition systems drops significantly under vehicle interior noisy conditions. The traditional spectral subtraction algorithm is a popular method for noise reduction but suffers from musical noise distortion. To compensate for this problem, we proposed a new complex plane approach for spectral subtraction. The proposed method rectifies the incorrect assumption about the cross terms involving the phase difference between the clean speech and noise signals being zero. We assessed the novel speech enhancement method using utterances corrupted by volvo car-interior noises in different signal-to-noise ratios (SNRs) levels. Spectrogram analysis results show that the complex plane method performs significantly better than the traditional spectral subtraction algorithm. In addition, the new speech enhancement method was evaluated by three groups of speaker data from the TIMIT database with a 32-order Gaussian Mixture Model (GMM) based speaker recognition system. The experiments revealed that the proposed approach performed better than the traditional spectral subtraction in the pre-processing stage of speaker recognition systems1.
车辆内部扬声器识别系统的复平面谱减法
在车内噪声条件下,扬声器识别系统的性能明显下降。传统的谱减算法是一种常用的降噪方法,但存在音乐噪声失真的问题。为了弥补这一问题,我们提出了一种新的复平面谱减法。该方法修正了关于干净语音信号与噪声信号相位差为零的交叉项的错误假设。我们以不同信噪比(SNRs)水平的沃尔沃汽车内部噪声所破坏的话语来评估这种新的语音增强方法。谱图分析结果表明,复平面法的性能明显优于传统的谱减法算法。此外,利用基于32阶高斯混合模型(GMM)的说话人识别系统对TIMIT数据库中的三组说话人数据进行了评价。实验表明,该方法在说话人识别系统预处理阶段的性能优于传统的谱减法方法1。
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