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SafeManip establishes a critical new standard for evaluating robotic foundation models by shifting focus from mere task completion to temporal safety constraints formalized via LTLf. By exposing the gap between successful execution and safe behavior across diverse environments, this benchmark addresses a fundamental limitation in current RL-based manipulation policies. The introduction of ManipVerse further enables the generalization of semantic safety rules, offering a robust framework for auditing policy reliability before real-world deployment.
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SafeManip: A Property-Driven Benchmark for Temporal Safety Evaluation in Robotic Manipulation

arXiv2 min read

arXiv:2605.12386v3 Announce Type: replace Abstract: Robotic manipulation is typically evaluated by task success, but reaching the correct final state does not guarantee safe execution. A robot may succeed despite contamination, premature release, or incorrect sequencing. These failures are poorly captured by task-completion metrics or isolated state checks because safety often depends on how behavior unfolds over time. We introduce SafeManip, a benchmark for evaluating temporal safety directly from low-level manipulation rollouts across eight physical and semantic categories. SafeManip grounds symbolic manipulation predicates into reusable temporal properties over finite executions, formalized with LTLf. We further introduce ManipVerse, a property ontology enabling semantic safety rules generalize across objects, tasks, and environments. Finally, SafeManip introduces per-trigger safety metrics that normalize violations by the safety-relevant opportunities that activate each obligation, accounting for differences in how often those opportunities arise across policies and tasks. We instantiate SafeManip on RoboCasa365 and LIBERO to audit seven state-of-the-art robot foundation-model policies. Our results reveal a gap between task capability and temporal safety: higher task success does not necessarily imply safer execution, successful rollouts can still contain violations, and failure patterns vary systematically across safety categories, task horizons, and manipulation suites. SafeManip provides a reusable layer for evaluating how safely manipulation tasks are executed, not only whether they are completed.

Abstract:Robotic manipulation is typically evaluated by task success, but reaching the correct final state does not guarantee safe execution. A robot may succeed despite contamination, premature release, or incorrect sequencing. These failures are poorly captured by task-completion metrics or isolated state checks because safety often depends on how behavior unfolds over time. We introduce SafeManip, a benchmark for evaluating temporal safety directly from low-level manipulation rollouts across eight physical and semantic categories. SafeManip grounds symbolic manipulation predicates into reusable temporal properties over finite executions, formalized with LTLf. We further introduce ManipVerse, a property ontology enabling semantic safety rules generalize across objects, tasks, and environments. Finally, SafeManip introduces per-trigger safety metrics that normalize violations by the safety-relevant opportunities that activate each obligation, accounting for differences in how often those opportunities arise across policies and tasks. We instantiate SafeManip on RoboCasa365 and LIBERO to audit seven state-of-the-art robot foundation-model policies. Our results reveal a gap between task capability and temporal safety: higher task success does not necessarily imply safer execution, successful rollouts can still contain violations, and failure patterns vary systematically across safety categories, task horizons, and manipulation suites. SafeManip provides a reusable layer for evaluating how safely manipulation tasks are executed, not only whether they are completed.

Robotics (cs.RO)

arXiv:2605.12386 [cs.RO]

(or arXiv:2605.12386v3 [cs.RO] for this version)

From: Khang V. Huynh [view email] [v1] Tue, 12 May 2026 16:49:28 UTC (3,761 KB) [v2] Wed, 10 Jun 2026 17:48:14 UTC (3,761 KB) [v3] Mon, 28 Sep 2026 01:10:36 UTC (3,150 KB)

Full text under the publisher's open licence · 249 words

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