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Video-Based Human Pose Regression via Decoupled Space-Time Aggregation

CVPR 2024 · 3D vision › Human pose estimation · approach: Temporal video pose estimation · 15 citations (OpenAlex)

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Proposes DSTA, a regression-based video human pose estimator that decouples spatial (between adjacent joints) and temporal (per-joint trajectory) attention over joint-wise feature tokens, avoiding heatmaps.

Problem

Heatmap-based multi-frame pose estimators are computationally and storage heavy per frame, limiting real-time and edge deployment, while regression-based pose estimators built for static images degrade badly on video input (occlusion, motion blur, defocus).

Approach

Convert backbone features into one feature token per joint, then apply joint-wise local-awareness attention separately for temporal (same joint across frames) and spatial (joints within structural groups) dependencies, concatenating the two before regressing coordinates with RLE loss.

Key results

Measured effects reported in the paper

What was changedWhereMeasuredEffect
Use video-based DSTA instead of image-based PoseurPoseTrack2017 pose regression · PoseTrack2017 val.mAP: 79.3 -> 84.6Helped
Use video-based DSTA instead of DCPoseHRNet-W48 video pose estimation · PoseTrack2017 val.mAP: 82.8 -> 84.6Helped
Add DSTA's low-computation regression head instead of DCPose's heatmap headHRNet-W48 video pose estimation · PoseTrack2017 val.GFLOPs of head: 11.0 -> 0.02Helped
Add JFD and STD to represent and aggregate joint-level features (ablation)DSTA · PoseTrack2017 val.mAP: 73.8 -> 78.6Helped
Model spatiotemporal relations jointly rather than decoupling space and time (ablation)DSTA · PoseTrack2017 val.mAP: 78.6 -> 74.8Hurt
Add temporal dependency modeling (TD) (ablation)DSTA with spatial dependency modeling · PoseTrack2017 val.mAP: 71.4 -> 78.6Helped
Add spatial dependency modeling (SD) (ablation)DSTA with temporal dependency modeling · PoseTrack2017 val.mAP: 78.1 -> 78.6Helped
Use the proposed JFD instead of [23] method (b) for joint embeddings (ablation)DSTA · PoseTrack2017 val.mAP: 77.9 -> 78.6Helped
Use more auxiliary frames (ablation)DSTA · PoseTrack2017 val.mAP: 78.0 -> 78.6 -> 79.7; 82.6 -> 83.4 -> 84.6; 82.6 -> 84.3 -> 85.6Helped
Use DSTA rather than DCPose at low input resolutions (ablation)Video pose estimation · PoseTrack2017 val.mAP: DSTA: 77.9; DCPose: 71.7; DSTA: 55.4; DCPose: 35.1Helped

Surprising findings

Limitations

Experimental setup

Datasets: COCO PoseTrack2017 PoseTrack2018 PoseTrack21

Benchmarks: PoseTrack2017 PoseTrack2018 PoseTrack21

Metrics: mAP GFLOPs parameters

Baselines: RLE Poseur DCPose PoseWarper FAMI-Pose DetTrack HRNet MDPN

Builds on: Poseur RLE PoseWarper DCPose Transformer

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