LIBERO-RECOVER: Beyond Task Success Towards Failure Recovery in Robotic Manipulation Models

📅 2026-09-04
📈 Citations: 0
Influential: 0
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🤖 AI Summary
为解决机器人操作中失败恢复问题,本文提出LIBERO-Recover基准,通过四个恢复级别评估机器人在执行任务时的恢复能力。
📝 Abstract
Vision-Language-Action (VLA) or World Action (WAM) models have recently demonstrated remarkable performance in robotic manipulation. On LIBERO, SOTA method have achieved nearly 100\% success rates, seemingly suggesting that the models are ready for deployment in real world. However, near perfect performance on existing benchmarks can be misleading: success under ideal conditions does not imply real world robustness. Existing benchmarks primarily evaluate task completion from predefined initial states, while real world interactions inevitably involve failures such as failed grasps, collisions, and unintended object movements. A robot must therefore not only execute tasks successfully, but also recognize and recover from failures to continue the task. Yet this capability remains largely unmeasured, revealing a critical gap between benchmark performance and real world reliability. To address this gap, we introduce LIBERO-Recover Benchmark, a large scale benchmark for failure recovery in robotic manipulation. Built upon LIBERO, we collect real execution failures from SOTA embodied models and construct 1,000+ scenarios across four recovery levels: (1) Action Retry, (2) Action Adaptation, (3) Object State Recovery, and (4) Environmental Recovery. We evaluate four core capabilities: spatial understanding, object structure reasoning, interaction understanding, and topological reasoning. As the first large-scale benchmark for embodied failure recovery, LIBERO-Recover shifts evaluation from \emph{Can the robot succeed?''} to \emph{Can the robot recover after failure?''}, promoting robust and generalizable embodied agents. The project will be avaible in \textcolor{blue}{https://liulin815.github.io/LIBERO-Recovery/}.
Problem

Research questions and friction points this paper is trying to address.

Failure Recovery
Robotic Manipulation
Real World Robustness
Innovation

Methods, ideas, or system contributions that make the work stand out.

Failure Recovery
Robustness
Embodied Agents
Benchmark
Real-World Interactions
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