利用注意力深度神经网络检测频谱图中的频率线

IF 2.1 2区 物理与天体物理 Q2 ACOUSTICS
DingLin Jiang, Xinwei Luo, Qifan Shen
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引用次数: 0

摘要

本文提出了一种频率线检测网络(FLDNet),可在低信噪比(SNR)条件下有效检测水下声学信号中的多条弱频率线和时变频率线。FLDNet 采用编码器-解码器架构作为基本框架,其中编码器用于获取频率线的多级特征,解码器负责重构频率线。FLDNet 包括基于注意力的特征融合模块,将深度语义特征与编码器学习到的浅层特征相结合,以减少解码器深度特征表征中的噪声,提高重构精度。此外,还利用频率线的连续性构建了复合损失函数,从而提高了频率线的检测性能。通过模拟信号集训练后,FLDNet 可以有效地检测模拟和测量信号频谱图中的频率线。实验结果表明,即使信噪比低至 -28 dB,FLDNet 也优于其他最先进的方法。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Frequency line detection in spectrograms using a deep neural network with attention.

In this paper, a frequency line detection network (FLDNet) is proposed to effectively detect multiple weak frequency lines and time-varying frequency lines in underwater acoustic signals under low signal-to-noise ratios (SNRs). FLDNet adopts an encoder-decoder architecture as the basic framework, where the encoder is designed to obtain multilevel features of the frequency lines, and the decoder is responsible for reconstructing the frequency lines. FLDNet includes attention-based feature fusion modules that combine deep semantic features with shallow features learned by the encoder to reduce noise in the decoder's deep feature representation and improve reconstruction accuracy. In addition, a composite loss function was constructed by using the continuity of frequency lines, which improved the detection performance of frequency lines. After training through simulated signal sets, FLDNet can effectively detect frequency lines in spectrograms of simulated and measured signals. The experimental results indicate that FLDNet is superior to other state-of-the-art methods, even at SNRs as low as -28 dB.

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来源期刊
CiteScore
4.60
自引率
16.70%
发文量
1433
审稿时长
4.7 months
期刊介绍: Since 1929 The Journal of the Acoustical Society of America has been the leading source of theoretical and experimental research results in the broad interdisciplinary study of sound. Subject coverage includes: linear and nonlinear acoustics; aeroacoustics, underwater sound and acoustical oceanography; ultrasonics and quantum acoustics; architectural and structural acoustics and vibration; speech, music and noise; psychology and physiology of hearing; engineering acoustics, transduction; bioacoustics, animal bioacoustics.
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