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六款前沿模型实测 LIBERO-10 机器人操作基准,GPT-6 Astra 以 44% 成功率居首

From Reasoning to Action: Benchmarking Frontier AI Models on LIBERO-10 Robot Manipulation Tasks

Why we picked it

研究者让 GPT-6、Claude Opus 5.5 这些模型直接操控真实机器人跑 LIBERO-10,1,800 次测试排出了名次,最强也只有 44% 成功率,想了解大模型动手能力差在哪的可以看。

一项研究构建了统一闭环操作框架,在不做任务微调的前提下,让 GPT-6 Astra、Claude Opus 5.5、Gemini-4 Argon 等 6 款前沿模型直接控制机器人完成 LIBERO-10 基准任务。测试覆盖 3 档推理强度、共 18 种配置和 1,800 次评估,GPT-6 Astra 以 44% 成功率排名第一,Gemini-4 Argon 为 43%。提高推理强度总体能提升操作表现,但各模型受益程度不同且推理成本更高。模型在物体放置类任务上表现较好,在精确空间排布和多步骤交互上仍有明显短板。

Original · arXiv cs.AI

From Reasoning to Action: Benchmarking Frontier AI Models on LIBERO-10 Robot Manipulation Tasks

Recent advances in frontier AI models have demonstrated remarkable capabilities in visual understanding, reasoning, planning, and tool use, raising the possibility of using general-purpose AI models for robot manipulation without task-specific training. However, their manipulation capabilities have not been systematically evaluated on standardized robotics benchmarks. In this report, we present a unified closed-loop manipulation framework for evaluating frontier AI models on the LIBERO-10 benchmark. Our framework enables models to control a robot directly through visual observations, robot proprioception, and structured tool calls, primarily by specifying target end-effector poses and gripper commands, without task-specific fine-tuning or pretrained manipulation skills. We evaluate six frontier AI models, including GPT-6 Astra, GPT-6.1 Sol, GPT-6 Luna, Claude Opus 5, Claude Opus 5.5, and Gemini-4 Argon, across three reasoning effort levels, resulting in 18 configurations and 1,800 evaluation episodes. Our results show that GPT-6 Astra achieves the highest success rate of 44%, followed by Gemini-4 Argon at 43%. Increasing reasoning effort generally improves manipulation performance, but the benefits vary across models and come at additional inference cost. We also observe substantial differences across tasks, with models performing relatively well on object placement tasks but struggling with precise spatial arrangements and complex multi-step interactions. These findings demonstrate both the potential and limitations of frontier AI models for robot manipulation, highlighting the challenges of translating reasoning capabilities into reliable physical actions. We release our evaluation framework and experimental results to support reproducible benchmarking and future research on reasoning-based robot manipulation.