Spatio-Temporal Transformer Network for Ship Trajectory Prediction with Adaptive Channel Frequency Enhancement

Ship trajectory prediction's precision is key to early warning of ensuring safe navigation and accidents. However, traditional prediction methods exhibit deficiencies in precision and stability when capturing the strong spatio-temporal dependence of ship trajectories and dealing with the inflexion of ships in traffic separation, becoming a technical bottleneck needing to be overcome urgently. Addressing the issues of weak proximity relationship perception and local perception fields in traditional time series prediction methods, this paper innovatively proposes a ship trajectory prediction network called Spatio-temporal Transformer Network with Adaptive Channel Frequency Enhancement(ST-Transformer with FE). By adopting the Transformer as the underlying architecture, combined with convolutional neural's strong local spatial perception capabilities networks (CNN) and the advantages of global context dependency modeling of extended long short-term memory networks(xLSTM), a spatio-temporal Transformer network is designed to improve the ability to map complex spatio-temporal relationships. Further, a frequency-enhanced channel attention mechanism (FECAM) is introduced to adaptively analyze the rich frequency information in ship AIS information, using Discrete Cosine Transform to eliminate Gibbs effects and highlight impact of strongly correlated frequency features. Ablation experiments and extensive performance comparisons are conducted, and the results show that the ST-Transformer with FE network outperforms other classical prediction network in predictive performance.

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Publication Details

Published
2024-11-01
DOI
https://doi.org/10.1109/cac63892.2024.10865155
Citations
1
Primary Topic
Maritime Navigation and Safety
Type
article
Field-Weighted Citation Impact
0.34

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article

Spatio-Temporal Transformer Network for Ship Trajectory Prediction with Adaptive Channel Frequency Enhancement

Yan Tian, Runchang Li, Chen Li, Rui Wang et al.
1 citations
Maritime Navigation and Safety
0.34
article

Spatio-Temporal Transformer Network for Ship Trajectory Prediction with Adaptive Channel Frequency Enhancement

Yan Tian, Runchang Li, Chen Li, Rui Wang, Tao Wang, Ming‐Hui Chen
article en
1 citations

Abstract

Ship trajectory prediction's precision is key to early warning of ensuring safe navigation and accidents. However, traditional prediction methods exhibit deficiencies in precision and stability when capturing the strong spatio-temporal dependence of ship trajectories and dealing with the inflexion of ships in traffic separation, becoming a technical bottleneck needing to be overcome urgently. Addressing the issues of weak proximity relationship perception and local perception fields in traditional time series prediction methods, this paper innovatively proposes a ship trajectory prediction network called Spatio-temporal Transformer Network with Adaptive Channel Frequency Enhancement(ST-Transformer with FE). By adopting the Transformer as the underlying architecture, combined with convolutional neural's strong local spatial perception capabilities networks (CNN) and the advantages of global context dependency modeling of extended long short-term memory networks(xLSTM), a spatio-temporal Transformer network is designed to improve the ability to map complex spatio-temporal relationships. Further, a frequency-enhanced channel attention mechanism (FECAM) is introduced to adaptively analyze the rich frequency information in ship AIS information, using Discrete Cosine Transform to eliminate Gibbs effects and highlight impact of strongly correlated frequency features. Ablation experiments and extensive performance comparisons are conducted, and the results show that the ST-Transformer with FE network outperforms other classical prediction network in predictive performance.

Wuhan University of Technology (CN), China Classification Society (CN)
National Natural Science Foundation of China
Affordable and clean energy
Openalex Percentile: Top 36%
Maritime Navigation and Safety
0.34
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