Multi-Head Structural Attention-Based Vision Transformer with Sequential Views for 3D Object Recognition

Multi-view image classification tasks require the effective extraction of both spatial and temporal features to fully leverage the complementary information across views. In this study, we propose a lightweight yet powerful model, Multi-head Sparse Structural Attention-based Vision Transformer (MSSAViT), which integrates Structural Self-Attention mechanisms into a compact framework optimized for multi-view inputs. The model employs a fixed MobileNetV3 as a Feature Extraction Module (FEM) to ensure consistent feature patterns across views, followed by Spatial Sparse Self-Attention (SSSA) and Temporal Sparse Self-Attention (TSSA) modules that capture long-range spatial dependencies and inter-view temporal dynamics, respectively. By leveraging these structural attention mechanisms, the model achieves the effective fusion of spatial and temporal information. Importantly, the total model size is reduced to 6.1 M with only 1.5 M trainable parameters, making it highly efficient. Comprehensive experiments demonstrate the proposed model’s superior performance and robustness in multi-view classification tasks, outperforming baseline methods while maintaining a lightweight design. These results highlight the potential of MSSAViT as a practical solution for real-world applications under resource constraints.

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Publication Details

Journal
Applied Sciences
Published
2025-03-16
DOI
https://doi.org/10.3390/app15063230
Citations
2
Primary Topic
Human Pose and Action Recognition
Type
article
Field-Weighted Citation Impact
2.55
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Multi-Head Structural Attention-Based Vision Transformer with Sequential Views for 3D Object Recognition

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2 citations
Applied Sciences
Human Pose and Action Recognition
2.55
article

Multi-Head Structural Attention-Based Vision Transformer with Sequential Views for 3D Object Recognition

Liang He, Qiqi Kou, Jianjun Bao, Luo Ke, Gaorong Zhao
article en
2 citations

Abstract

Multi-view image classification tasks require the effective extraction of both spatial and temporal features to fully leverage the complementary information across views. In this study, we propose a lightweight yet powerful model, Multi-head Sparse Structural Attention-based Vision Transformer (MSSAViT), which integrates Structural Self-Attention mechanisms into a compact framework optimized for multi-view inputs. The model employs a fixed MobileNetV3 as a Feature Extraction Module (FEM) to ensure consistent feature patterns across views, followed by Spatial Sparse Self-Attention (SSSA) and Temporal Sparse Self-Attention (TSSA) modules that capture long-range spatial dependencies and inter-view temporal dynamics, respectively. By leveraging these structural attention mechanisms, the model achieves the effective fusion of spatial and temporal information. Importantly, the total model size is reduced to 6.1 M with only 1.5 M trainable parameters, making it highly efficient. Comprehensive experiments demonstrate the proposed model’s superior performance and robustness in multi-view classification tasks, outperforming baseline methods while maintaining a lightweight design. These results highlight the potential of MSSAViT as a practical solution for real-world applications under resource constraints.

Applied SciencesVol. 15(6)
China University of Mining and Technology (CN), Tiandi Science & Technology (China) (CN), Beihang University (CN)
Openalex Percentile: Top 12%
Human Pose and Action Recognition
2.55
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