ZeroBP: Learning Position-Aware Correspondence for Zero-shot 6D Pose Estimation in Bin-Picking
Jianqiu Chen, Zikun Zhou, Xin Li, Ye Zheng, Tianpeng Bao, Zhenyu He

TL;DR
ZeroBP introduces a zero-shot 6D pose estimation framework for bin-picking that learns position-aware correspondences, effectively handling textureless and ambiguous workpieces, and outperforms existing methods on the ROBI dataset.
Contribution
The paper presents ZeroBP, a novel zero-shot pose estimation method that leverages position-aware correspondences to improve accuracy in challenging bin-picking scenarios.
Findings
ZeroBP achieves 9.1% higher average recall than state-of-the-art methods.
ZeroBP effectively handles textureless and ambiguous workpieces.
Extensive experiments validate the superiority of ZeroBP on the ROBI dataset.
Abstract
Bin-picking is a practical and challenging robotic manipulation task, where accurate 6D pose estimation plays a pivotal role. The workpieces in bin-picking are typically textureless and randomly stacked in a bin, which poses a significant challenge to 6D pose estimation. Existing solutions are typically learning-based methods, which require object-specific training. Their efficiency of practical deployment for novel workpieces is highly limited by data collection and model retraining. Zero-shot 6D pose estimation is a potential approach to address the issue of deployment efficiency. Nevertheless, existing zero-shot 6D pose estimation methods are designed to leverage feature matching to establish point-to-point correspondences for pose estimation, which is less effective for workpieces with textureless appearances and ambiguous local regions. In this paper, we propose ZeroBP, a zero-shot…
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Taxonomy
TopicsRobot Manipulation and Learning · Robotic Mechanisms and Dynamics · Soft Robotics and Applications
