Spatio-Temporal Dynamic Attention Graph Convolutional Network Based on Skeleton Gesture Recognition

Dynamic gesture recognition based on skeletal data has garnered significant attention with the rise of graph convolutional networks (GCNs). Existing methods typically calculate dependencies between joints and utilize spatio-temporal attention features. However, they often rely on joint topological features of limited spatial extent and short-time features, making it challenging to extract intra-frame spatial features and long-term inter-frame temporal features. To address this, we propose a new GCN architecture for dynamic hand gesture recognition, called a spatio-temporal dynamic attention graph convolutional network (STDA-GCN). This model employs dynamic attention spatial graph convolution, enhancing spatial feature extraction capabilities while reducing computational complexity through improved cross-channel information interaction. Additionally, a salient location channel attention mechanism is integrated between spatio-temporal convolutions to extract useful spatial features and avoid redundancy. Finally, dynamic multi-scale temporal convolution is used to extract richer inter-frame gesture features, effectively capturing information across various time scales. Evaluations on the SHREC’17 Track and DHG-14/28 benchmark datasets show that our model achieves 97.14% and 95.84% accuracy, respectively. These results demonstrate the superior performance of STDA-GCN in dynamic gesture recognition tasks.

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Publication Details

Journal
Electronics
Published
2024-09-20
DOI
https://doi.org/10.3390/electronics13183733
Citations
12
Primary Topic
Hand Gesture Recognition Systems
Type
article
Field-Weighted Citation Impact
4.46
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article

Spatio-Temporal Dynamic Attention Graph Convolutional Network Based on Skeleton Gesture Recognition

Xingyu Chen, Ying Cui, Xiaowei Han, Yunjing Lu et al.
12 citations
Electronics
Hand Gesture Recognition Systems
4.46
article

Spatio-Temporal Dynamic Attention Graph Convolutional Network Based on Skeleton Gesture Recognition

Xingyu Chen, Ying Cui, Xiaowei Han, Yunjing Lu, Wen Hu
article en
12 citations

Abstract

Dynamic gesture recognition based on skeletal data has garnered significant attention with the rise of graph convolutional networks (GCNs). Existing methods typically calculate dependencies between joints and utilize spatio-temporal attention features. However, they often rely on joint topological features of limited spatial extent and short-time features, making it challenging to extract intra-frame spatial features and long-term inter-frame temporal features. To address this, we propose a new GCN architecture for dynamic hand gesture recognition, called a spatio-temporal dynamic attention graph convolutional network (STDA-GCN). This model employs dynamic attention spatial graph convolution, enhancing spatial feature extraction capabilities while reducing computational complexity through improved cross-channel information interaction. Additionally, a salient location channel attention mechanism is integrated between spatio-temporal convolutions to extract useful spatial features and avoid redundancy. Finally, dynamic multi-scale temporal convolution is used to extract richer inter-frame gesture features, effectively capturing information across various time scales. Evaluations on the SHREC’17 Track and DHG-14/28 benchmark datasets show that our model achieves 97.14% and 95.84% accuracy, respectively. These results demonstrate the superior performance of STDA-GCN in dynamic gesture recognition tasks.

ElectronicsVol. 13(18)
Harbin University of Commerce (CN)
Openalex Percentile: Top 5%
Hand Gesture Recognition Systems
4.46
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