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This research addresses the critical challenge of scaling safety analysis in autonomous systems by using vision-language models to automatically cluster failure logs into actionable taxonomies. By transforming raw error data from domains like robotics and self-driving cars into structured insights, the method enables more efficient offline policy refinement and robust runtime monitoring without manual intervention. The core contribution lies in leveraging multimodal reasoning to extract semantic patterns that drive system reliability improvements across diverse real-world scenarios.
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What this isA model's reading of the article and related coverage, written for aiqbench. Not the publisher's words.

Unsupervised Discovery of Failure Taxonomies from Deployment Logs

arXiv2 min read

arXiv:2506.06570v4 Announce Type: replace Abstract: As robotic systems become increasingly integrated into real-world environments, ranging from autonomous vehicles to household assistants, they inevitably encounter diverse and unstructured scenarios that lead to failures. While such failures pose safety and reliability challenges, they also provide rich perceptual data for improving system robustness. However, manually analyzing large-scale failure datasets is impractical and does not scale. In this work, we introduce the problem of unsupervised discovery of failure taxonomies from large volumes of raw failure logs, aiming to obtain semantically coherent and actionable failure modes directly from perceptual trajectories. Our approach first infers structured failure explanations from multimodal inputs using vision language reasoning, then clusters them in the resulting semantic reasoning space, discovering recurring failure modes rather than isolated episode-level descriptions. We evaluate our method across robotic manipulation, indoor navigation, and autonomous driving domains, demonstrating that the discovered taxonomies are consistent, interpretable, and useful in practice. In particular, we show that structured failure taxonomies guide targeted data collection for offline policy refinement and enhance runtime failure monitoring systems. Website: https://mllm-failure-clustering.github.io/

Abstract:As robotic systems become increasingly integrated into real-world environments, ranging from autonomous vehicles to household assistants, they inevitably encounter diverse and unstructured scenarios that lead to failures. While such failures pose safety and reliability challenges, they also provide rich perceptual data for improving system robustness. However, manually analyzing large-scale failure datasets is impractical and does not scale. In this work, we introduce the problem of unsupervised discovery of failure taxonomies from large volumes of raw failure logs, aiming to obtain semantically coherent and actionable failure modes directly from perceptual trajectories. Our approach first infers structured failure explanations from multimodal inputs using vision language reasoning, then clusters them in the resulting semantic reasoning space, discovering recurring failure modes rather than isolated episode-level descriptions. We evaluate our method across robotic manipulation, indoor navigation, and autonomous driving domains, demonstrating that the discovered taxonomies are consistent, interpretable, and useful in practice. In particular, we show that structured failure taxonomies guide targeted data collection for offline policy refinement and enhance runtime failure monitoring systems. Website: this https URL

Robotics (cs.RO)

arXiv:2506.06570 [cs.RO]

(or arXiv:2506.06570v4 [cs.RO] for this version)

Full text under the publisher's open licence · 183 words

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