综述灵巧操作中交互式模仿学习的挑战与前景
Interactive Imitation Learning for Dexterous Robotic Manipulation: Challenges and Perspectives -- A Survey
- 提出用人类反馈实时优化机器人操作行为的新思路
- 指出高维控制与数据稀缺是核心瓶颈
- 适合关注人机协作与智能机器人训练的研究者
灵巧操作是人形机器人在真实环境中应用的关键挑战,要求精准、可适应且样本高效的学习方法。由于人形机器人需在人类日常环境中与常见物体交互,掌握灵巧操作对实际部署至关重要。传统强化学习与模仿学习虽有进展,但受限于高维控制、数据有限和协变量偏移等现实问题。本文系统综述了基于学习的灵巧操作方法,涵盖模仿学习、强化学习及混合方法。重点探讨了交互式模仿学习——利用人类反馈在训练中动态修正机器人行为——这一潜力方向。尽管该方法在其他任务中已取得成功,但在灵巧操作领域仍处于初级阶段。本文分析现有技术,并提出适配路径,旨在推动其在灵巧操作中的应用。通过整合前沿研究,本文揭示关键挑战,指出现有方法缺口,并展望未来发展方向。
原文摘要 · Abstract (English)
Dexterous manipulation is a crucial yet highly complex challenge in humanoid robotics, demanding precise, adaptable, and sample-efficient learning methods. As humanoid robots are usually designed to operate in human-centric environments and interact with everyday objects, mastering dexterous manipulation is critical for real-world deployment. Traditional approaches, such as reinforcement learning and imitation learning, have made significant strides, but they often struggle due to the unique challenges of real-world dexterous manipulation, including high-dimensional control, limited training data, and covariate shift. This survey provides a comprehensive overview of these challenges and reviews existing learning-based methods for real-world dexterous manipulation, spanning imitation learning, reinforcement learning, and hybrid approaches. A promising yet underexplored direction is interactive imitation learning, where human feedback actively refines a robots behavior during training. While interactive imitation learning has shown success in various robotic tasks, its application to dexterous manipulation remains limited. To address this gap, we examine current interactive imitation learning techniques applied to other robotic tasks and discuss how these methods can be adapted to enhance dexterous manipulation. By synthesizing state-of-the-art research, this paper highlights key challenges, identifies gaps in current methodologies, and outlines potential directions for leveraging interactive imitation learning to improve dexterous robotic skills.
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