Multilabel Recognition Method for Ship-Radiated Noise Signals Based on Multidomain Information Fusion With Deep Equilibrium Models

The recognition of ship-radiated noise signals is currently the crucial means of perceiving ships. Numerous methods for the recognition of ship-radiated noise signals have been developed based on deep learning techniques. Prior studies on ship-radiated noise signal recognition have assumed a single-target scenario. In this article, we establish a multilabel recognition scenario for ship-radiated noise signals. We propose a multilabel recognition framework for ship-radiated noise signals with multidomain information fusion. Initially, we adopt two fundamental backbone network structures to extract preliminary features from both time-domain and time–frequency domain signal data. Subsequently, we construct a feature enhancement and fusion module based on the theory of deep balanced networks. This module enables information interaction from low-level to high-level between the time-domain and time-frequency domain information of ship-radiated noise signals. We introduce a transformer-based feature enhancement approach and a gated fusion feature update network structure. We also design a fusion strategy for secondary fusion updates and interdomain representations to obtain stable enhanced fusion feature representations. Finally, a linear classifier is employed to determine the categories of the mixed signals. We simulate multilabel data for ship-radiated noise signals using the publicly available Deepship data set. Experimental results demonstrate satisfactory recognition performance.

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Publication Details

Journal
IEEE Journal of Oceanic Engineering
Published
2025-05-08
DOI
https://doi.org/10.1109/joe.2025.3545239
Citations
2
Primary Topic
Infrared Target Detection Methodologies
Type
article
Field-Weighted Citation Impact
9.99

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article

Multilabel Recognition Method for Ship-Radiated Noise Signals Based on Multidomain Information Fusion With Deep Equilibrium Models

Haiyan Wang, Xiaohong Shen, Yongsheng Yan, Yichen Duan
2 citations
IEEE Journal of Oceanic Engineering
Infrared Target Detection Methodologies
9.99
article

Multilabel Recognition Method for Ship-Radiated Noise Signals Based on Multidomain Information Fusion With Deep Equilibrium Models

Haiyan Wang, Xiaohong Shen, Yongsheng Yan, Yichen Duan
article en
2 citations

Abstract

The recognition of ship-radiated noise signals is currently the crucial means of perceiving ships. Numerous methods for the recognition of ship-radiated noise signals have been developed based on deep learning techniques. Prior studies on ship-radiated noise signal recognition have assumed a single-target scenario. In this article, we establish a multilabel recognition scenario for ship-radiated noise signals. We propose a multilabel recognition framework for ship-radiated noise signals with multidomain information fusion. Initially, we adopt two fundamental backbone network structures to extract preliminary features from both time-domain and time–frequency domain signal data. Subsequently, we construct a feature enhancement and fusion module based on the theory of deep balanced networks. This module enables information interaction from low-level to high-level between the time-domain and time-frequency domain information of ship-radiated noise signals. We introduce a transformer-based feature enhancement approach and a gated fusion feature update network structure. We also design a fusion strategy for secondary fusion updates and interdomain representations to obtain stable enhanced fusion feature representations. Finally, a linear classifier is employed to determine the categories of the mixed signals. We simulate multilabel data for ship-radiated noise signals using the publicly available Deepship data set. Experimental results demonstrate satisfactory recognition performance.

IEEE Journal of Oceanic EngineeringVol. 50(3)
Northwestern Polytechnical University (CN)
National Natural Science Foundation of China
Openalex Percentile: Top 3%
Infrared Target Detection Methodologies
9.99
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