AdaMoT: Adaptive Motion-Aware Transformer for Efficient Visual Tracking

Visual object tracking utilizing adaptive computation presents challenges stemming from the complexities of modeling intricate motion patterns and achieving computational efficiency. While recent transformer-based trackers have shown promising results, they struggle to effectively capture varying motion dynamics and often waste computation on less informative regions, leading to degraded performance under fast motion and occlusion. In this letter, we present AdaMoT, an innovative motion-aware transformer framework featuring three lightweight modules that integrate adaptive attention and motion estimation: a Lightweight Adaptive Motion Estimation (LAME) module that guides transformer attention through motion pattern modeling, a Saliency-based Hard Attention Sampling (SHAS) module that reduces computation by 60% through focusing on motion-critical regions, and an Adaptive ViT Attention Head Adjustment (AVAHA) module that dynamically allocates attention heads based on motion complexity. Our framework uniquely integrates motion estimation with transformer attention through a shared feature space, achieving robust tracking with minimal overhead. Comprehensive testing indicate that AdaMoT attains superior performance on various demanding benchmarks (75.1% AO on GOT-10 k, 84.9% AUC on TrackingNet, 72.9% AUC on LaSOT) while maintaining real-time speed (32.1 FPS) with only 4% FLOPs increase.

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Publication Details

Journal
IEEE Signal Processing Letters
Published
2025-01-01
DOI
https://doi.org/10.1109/lsp.2025.3553429
Citations
1
Primary Topic
Video Surveillance and Tracking Methods
Type
article
Field-Weighted Citation Impact
1.28
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article

AdaMoT: Adaptive Motion-Aware Transformer for Efficient Visual Tracking

Yongjun Wang, Xiaohui Hao
1 citations
IEEE Signal Processing Letters
Video Surveillance and Tracking Methods
1.28
article

AdaMoT: Adaptive Motion-Aware Transformer for Efficient Visual Tracking

Yongjun Wang, Xiaohui Hao
article en
1 citations

Abstract

Visual object tracking utilizing adaptive computation presents challenges stemming from the complexities of modeling intricate motion patterns and achieving computational efficiency. While recent transformer-based trackers have shown promising results, they struggle to effectively capture varying motion dynamics and often waste computation on less informative regions, leading to degraded performance under fast motion and occlusion. In this letter, we present AdaMoT, an innovative motion-aware transformer framework featuring three lightweight modules that integrate adaptive attention and motion estimation: a Lightweight Adaptive Motion Estimation (LAME) module that guides transformer attention through motion pattern modeling, a Saliency-based Hard Attention Sampling (SHAS) module that reduces computation by 60% through focusing on motion-critical regions, and an Adaptive ViT Attention Head Adjustment (AVAHA) module that dynamically allocates attention heads based on motion complexity. Our framework uniquely integrates motion estimation with transformer attention through a shared feature space, achieving robust tracking with minimal overhead. Comprehensive testing indicate that AdaMoT attains superior performance on various demanding benchmarks (75.1% AO on GOT-10 k, 84.9% AUC on TrackingNet, 72.9% AUC on LaSOT) while maintaining real-time speed (32.1 FPS) with only 4% FLOPs increase.

IEEE Signal Processing LettersVol. 32
Beihang University (CN)
Affordable and clean energy
Openalex Percentile: Top 22%
Video Surveillance and Tracking Methods
1.28
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