Application of the Sparse Low-rank Model in Denoising of Underwater Acoustic Signal

Yaowen Wu, Chuanxi Xing, Yifan Zhao
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引用次数: 1

Abstract

Sound signals have good propagation effect in the marine environment, which is of great significance to under-water target positioning, underwater acoustic communication and so on. However, underwater acoustic signals are usually disturbed by a large amount of noise during the propagation due to the complexity of the marine environment. And we could not obtain the underwater acoustic signals precisely. Traditional denoising methods based on robust principal component analysis (RPCA) are limited by its incompleteness, and the denoised signal still has a lot of noise. We use the Go decomposition (Godec) algorithm in this paper, which is based on the RPCA algorithm to represent the noisy signal as sparse, low-rank and noise via sparse low-rank model. Then we use the non-negative matrix factorization (NMF) algorithm for the low-rank part to obtain the noise-free signal dictionary and the noise dictionary. Finally, the signal is reconstructed according to the noise-free signal dictionary, and we obtain the denoised underwater acoustic signal. To verify the effectiveness of this method, we perform denoising processing on the measured signals of the marine experiment. The results show that compared with the traditional RPCA algorithm, the denoised signal via our method in this paper has fewer noise components and has a better noise reduction effect.
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稀疏低秩模型在水声信号去噪中的应用
声信号在海洋环境中具有良好的传播效果,对水下目标定位、水声通信等具有重要意义。然而,由于海洋环境的复杂性,水声信号在传播过程中往往会受到大量噪声的干扰。并且无法准确地获取水声信号。传统的基于鲁棒主成分分析(RPCA)的去噪方法受其不完备性的限制,去噪后的信号仍然存在很大的噪声。本文采用基于RPCA算法的Go分解(Godec)算法,通过稀疏低秩模型将噪声信号表示为稀疏、低秩和噪声。然后对低秩部分采用非负矩阵分解(NMF)算法,得到无噪声信号字典和噪声字典。最后,根据无噪声信号字典对信号进行重构,得到去噪后的水声信号。为了验证该方法的有效性,我们对海洋实验的实测信号进行了去噪处理。结果表明,与传统的RPCA算法相比,本文方法降噪后的信号噪声成分更少,降噪效果更好。
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