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能動学習arXiv:2410.10684

適応的経路計画によるロボットビジョンの能動学習

Active Learning of Robot Vision Using Adaptive Path Planning

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未知環境でのロボットの視覚性能を高めるため、高品質な人手ラベルと自動生成された疑似ラベルを組み合わせ、適応的な経路計画で効率的に学習データを収集するフレームワークを提案した。

著者: Julius Rückin, Federico Magistri, Cyrill Stachniss, Marija Popović

分類: cs.RO

原文アブストラクト

Robots need robust and flexible vision systems to perceive and reason about their environments beyond geometry. Most of such systems build upon deep learning approaches. As autonomous robots are commonly deployed in initially unknown environments, pre-training on static datasets cannot always capture the variety of domains and limits the robot's vision performance during missions. Recently, self-supervised as well as fully supervised active learning methods emerged to improve robotic vision. These approaches rely on large in-domain pre-training datasets or require substantial human labelling effort. To address these issues, we present a recent adaptive planning framework for efficient training data collection to substantially reduce human labelling requirements in semantic terrain monitoring missions. To this end, we combine high-quality human labels with automatically generated pseudo labels. Experimental results show that the framework reaches segmentation performance close to fully supervised approaches with drastically reduced human labelling effort while outperforming purely self-supervised approaches. We discuss the advantages and limitations of current methods and outline valuable future research avenues towards more robust and flexible robotic vision systems in unknown environments.

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