AI & ML
Correct Robots Before They Make Mistakes: Proactive Human-in-the-Loop Intervention via Preference Learning
arXiv cs.RO0 views
arXiv:2611.05667v1 Announce Type: new Abstract: This paper presents Proactive Human-in-the-Loop (PHIL), a framework for proactive policy correction and preference-based post-training. PHIL enables operators to preview policy-predicted future motion and intervene before anticipated undesirable actions. During takeover, PHIL continues querying the policy and displaying its predicted trajectories in the physical workspace through an extended reality (XR) interface. PHIL pairs rejected policy predictions with corrective action chunks subsequently executed from the same physical state over the same horizon, and preference-based post-training encourages the policy to favor these corrections. This paper evaluates PHIL on four real-world manipulation tasks using a diffusion policy and a pretrained vision-language-action policy. With five correction episodes per condition, PHIL increases mean success rates across the evaluated tasks and demonstration budgets from 44.0% to 70.3% for the diffusion policy and from 57.8% to 76.9% for X-VLA, compared with HG-DAgger. Separately, policies trained with proactive corrections show fewer unnecessary recovery behaviors in successful episodes. Project page: https://intuitive-robots.github.io/PHIL-page/.
Source:https://arxiv.org/abs/2611.05667Previous$\mathcal{C}^\infty$ Smooth Trajectory Planning with Application to Soft RobotsNextOdorSpaces: Visual-Olfactory Embodied Navigation in 3D Environments
Related posts

Best ChatGPT Alternatives That Run Entirely on Your Own Device in 2026 (Free, No Account)
0dev.to OpenSource

Best Private Local AI App for Mac and Windows in 2026 (Runs on Your Computer and Remembers Your Work)
0dev.to OpenSource

How Can AI Customer Service Improve Healthcare in Singapore?
0dev.to Programming
Stop Getting Generic AI Answers: The 2+2 Prompt Engineering Blueprint
0dev.to Programming
Test DOCX Breaks as a Many-to-One Conversion
0dev.to JavaScript
A Bayesian Optimized Biquad Filter-Burg Model for Real-Time EEG Phase Estimation
0arXiv eess.SP