Learning-Based Safety-Aware Task Scheduling for Efficient Human-Robot Collaboration

Ensuring human safety in collaborative robotics can compromise efficiency because traditional safety measures increase robot cycle time when human interaction is frequent. This paper proposes a safety-aware approach to mitigate efficiency losses without assuming prior knowledge of safety logic. Using a deep-learning model, the robot learns the relationship between system state and safety-induced speed reductions based on execution data. Our framework does not explicitly predict human motions but directly models the interaction effects on robot speed, simplifying implementation and enhancing generalizability to different safety logics. At runtime, the learned model optimizes task selection to minimize cycle time while adhering to safety requirements. Experiments on a pick-and-packaging scenario demonstrated significant reductions in cycle times.

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Publication Details

Journal
IEEE Robotics and Automation Letters
Published
2025-12-25
DOI
https://doi.org/10.1109/lra.2025.3648605
Primary Topic
Robot Manipulation and Learning
Type
article
Field-Weighted Citation Impact
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article

Learning-Based Safety-Aware Task Scheduling for Efficient Human-Robot Collaboration

Marco Faroni, Antonia Teresa Spano, P. Rocco, A. M. Zanchettin
IEEE Robotics and Automation Letters
Robot Manipulation and Learning
article

Learning-Based Safety-Aware Task Scheduling for Efficient Human-Robot Collaboration

Marco Faroni, Antonia Teresa Spano, P. Rocco, A. M. Zanchettin
article en

Abstract

Ensuring human safety in collaborative robotics can compromise efficiency because traditional safety measures increase robot cycle time when human interaction is frequent. This paper proposes a safety-aware approach to mitigate efficiency losses without assuming prior knowledge of safety logic. Using a deep-learning model, the robot learns the relationship between system state and safety-induced speed reductions based on execution data. Our framework does not explicitly predict human motions but directly models the interaction effects on robot speed, simplifying implementation and enhancing generalizability to different safety logics. At runtime, the learned model optimizes task selection to minimize cycle time while adhering to safety requirements. Experiments on a pick-and-packaging scenario demonstrated significant reductions in cycle times.

IEEE Robotics and Automation LettersVol. 11(2)
Politecnico di Milano (IT)
Openalex Percentile: Top 37%
Robot Manipulation and Learning
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