[Paper] UniIntervene: Agentic Intervention for Efficient Real-World Reinforcement Learning

Published: (June 10, 2026 at 01:38 PM EDT)
2 min read
Source: arXiv

Source: arXiv - 2606.12372v1

Overview

Human-in-the-loop reinforcement learning (HiL-RL) has emerged as an effective paradigm for real-world robotic manipulation, enabling online policy improvement with human guidance. However, current HiL-RL frameworks remain intervention-intensive, relying on frequent human corrections to redirect the policy out of unproductive exploration, which incurs high labor cost and limits real-world scalability. To address this, we propose UniIntervene, an agentic intervention model that detects unproductive exploration and autonomously recovers the policy toward high-value states, taking over the bulk of interventions from human operators. Specifically, UniIntervene first performs future-conditioned action-value estimation, predicting the latent consequence of the current action and evaluating its induced value, which provides a more stable progress signal. Building on this, a temporal value-risk critic aggregates recent value dynamics and triggers intervention when the estimated value exhibits sustained stagnation or degradation. When intervention is required, UniIntervene retrieves a high-value recovery target from a memory of past intervention episodes and produces executable corrective actions through a goal-conditioned recovery policy. In this way, UniIntervene turns intervention from passive human correction into a value-aware recovery process for efficient real-world RL. Extensive experiments on diverse real-world manipulation tasks demonstrate that UniIntervene improves the average success rate by 8.6% while reducing human interventions by 57% relative to state-of-the-art HiL-RL baselines.

Key Contributions

This paper presents research in the following areas:

  • cs.RO
  • cs.LG

Methodology

Please refer to the full paper for detailed methodology.

Practical Implications

This research contributes to the advancement of cs.RO.

Authors

  • Haoyuan Deng
  • Yitong Gao
  • Yudong Lin
  • Haichao Liu
  • Zhenyu Wu
  • Ziwei Wang

Paper Information

  • arXiv ID: 2606.12372v1
  • Categories: cs.RO, cs.LG
  • Published: June 10, 2026
  • PDF: Download PDF
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