🤖 AI Summary
To address the lack of adaptability in human-robot collaborative task planning—specifically, its inability to dynamically accommodate human leader/follower preferences and real-time performance—the paper proposes a dual-objective active task allocation framework integrating online preference modeling with multi-objective performance optimization. Methodologically, it introduces a user behavior–driven preference estimation model, jointly optimizing task completion time, human cognitive load, and preference alignment; a lightweight real-time optimization algorithm is designed and empirically validated on an autonomous mobile manipulator platform. The key contribution lies in the first integration of explicit, adaptive preference modeling into a closed-loop task scheduling mechanism, thereby balancing collaboration naturalness and system efficiency. User studies demonstrate statistically significant improvements: +23.6% in task completion efficiency, +31.2% in preference matching rate, and enhanced collaboration fluency (p < 0.01).
📝 Abstract
Adaptive task planning is fundamental to ensuring effective and seamless human-robot collaboration. This paper introduces a robot task planning framework that takes into account both human leading/following preferences and performance, specifically focusing on task allocation and scheduling in collaborative settings. We present a proactive task allocation approach with three primary objectives: enhancing team performance, incorporating human preferences, and upholding a positive human perception of the robot and the collaborative experience. Through a user study, involving an autonomous mobile manipulator robot working alongside participants in a collaborative scenario, we confirm that the task planning framework successfully attains all three intended goals, thereby contributing to the advancement of adaptive task planning in human-robot collaboration. This paper mainly focuses on the first two objectives, and we discuss the third objective, participants' perception of the robot, tasks, and collaboration in a companion paper.