Memory-augmented graph convolutional network for vision ship recognition in intelligent maritime surveillance systems

In harsh weather, uneven lighting, and complex nearshore environments, static visible light ship recognition in intelligent maritime surveillance faces numerous challenges. These conditions obscure fine-grained target details, and existing methods often lose shallow information during network propagation. This makes small-scale ships difficult to recognize. To address this issue, we propose a memory-augmented graph convolutional network (MAGCN) for ship recognition. The proposed adaptive feature selection (AFS) module progressively extracts discriminative entity nodes from multi-scale Swin-Transformer features, and the GCN memory (GM) module re-lates these nodes to fuse shallow and deep contextual information recur-sively, thereby preserving critical fine-grained details. Experimental results on CIB-ships, MAR-ships, and Game-of-ships show that MAGCN improves accuracy by 2.65% on CIB-ships, is 0.41% lower than FREGNet on MAR-ships, and exceeds FREGNet by 0.02% on Game-of-ships. Paired tests over five fixed random seeds show reproducible improvements over the internal Swin-Transformer-Base+MLP baseline, but do not establish statistical su-periority over the external competing methods. These results indicate that the advantage of MAGCN is most evident in the highly cluttered CIB-ships setting, while its performance on the other two datasets is competitive rather than uniformly superior.

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Publication Details

Journal
Applied Ocean Research
Published
2026-09-15
DOI
https://doi.org/10.1016/j.apor.2026.105258
Primary Topic
Advanced Neural Network Applications
Type
article
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Memory-augmented graph convolutional network for vision ship recognition in intelligent maritime surveillance systems

Hanlei Quan, He Bao, Yang Tian, Jinglin Ji
Applied Ocean Research
Advanced Neural Network Applications
article

Memory-augmented graph convolutional network for vision ship recognition in intelligent maritime surveillance systems

Hanlei Quan, He Bao, Yang Tian, Jinglin Ji
article en

Abstract

In harsh weather, uneven lighting, and complex nearshore environments, static visible light ship recognition in intelligent maritime surveillance faces numerous challenges. These conditions obscure fine-grained target details, and existing methods often lose shallow information during network propagation. This makes small-scale ships difficult to recognize. To address this issue, we propose a memory-augmented graph convolutional network (MAGCN) for ship recognition. The proposed adaptive feature selection (AFS) module progressively extracts discriminative entity nodes from multi-scale Swin-Transformer features, and the GCN memory (GM) module re-lates these nodes to fuse shallow and deep contextual information recur-sively, thereby preserving critical fine-grained details. Experimental results on CIB-ships, MAR-ships, and Game-of-ships show that MAGCN improves accuracy by 2.65% on CIB-ships, is 0.41% lower than FREGNet on MAR-ships, and exceeds FREGNet by 0.02% on Game-of-ships. Paired tests over five fixed random seeds show reproducible improvements over the internal Swin-Transformer-Base+MLP baseline, but do not establish statistical su-periority over the external competing methods. These results indicate that the advantage of MAGCN is most evident in the highly cluttered CIB-ships setting, while its performance on the other two datasets is competitive rather than uniformly superior.

Applied Ocean ResearchVol. 176
Guangxi University (CN), Guangxi Science and Technology Department (CN), Power Grid Corporation (India) (IN)
Reduced inequalities
Openalex Percentile: Top 13%
Advanced Neural Network Applications
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