Fanuc robot. Code and data files for the paper: Fatigue-Aware Sub-Second Combinatorial Auctions for Dynamic Cycle Allocation in Human–Robot Collaborative Assembly.

Problem: Existing Human–Robot Collaboration (HRC) allocators cannot react at a sub‑second scale while accounting for worker fatigue. Objective: We designed a fatigue‑aware combinatorial auction executed every 100 ms. Method: A human and a FANUC robot submit bids combining execution time, predicted energy, and real‑time fatigue; a greedy algorithm (≤1 ms) with a 1–1/<i>e</i> approximation guarantee and <i>O </i>(|<i>Bids</i>| log |<i>Bids</i>|) complexity maximizes utility. Results: In 1000 RoboDK episodes, the framework increases active cycles·min−1 by 20%, improves robot utilization by +10.2 percentage points, reduces per cycle fatigue by 4%, and raises the collision‑free rate to 99.85% versus a static baseline (<i>p</i> &lt; 0.001). Contribution: We provide the first transparent, sub‑second, fatigue‑aware allocation mechanism for Industry 5.0, with quantified privacy safeguards and a roadmap for physical deployment. Unlike prior auction-based or reinforcement learning approaches, our model uniquely integrates a sub-second ergonomic adaptation with a mathematically interpretable utility structure, ensuring both human-centered responsiveness and system-level transparency.

Publication Details

Journal
Figshare
Published
2025-01-01
DOI
https://doi.org/10.6084/m9.figshare.29431700.v4
Primary Topic
Robot Manipulation and Learning
Type
article
Field-Weighted Citation Impact
0.00
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article

Fanuc robot. Code and data files for the paper: Fatigue-Aware Sub-Second Combinatorial Auctions for Dynamic Cycle Allocation in Human–Robot Collaborative Assembly.

Figshare
Robot Manipulation and Learning
article

Fanuc robot. Code and data files for the paper: Fatigue-Aware Sub-Second Combinatorial Auctions for Dynamic Cycle Allocation in Human–Robot Collaborative Assembly.

article en

Abstract

Problem: Existing Human–Robot Collaboration (HRC) allocators cannot react at a sub‑second scale while accounting for worker fatigue. Objective: We designed a fatigue‑aware combinatorial auction executed every 100 ms. Method: A human and a FANUC robot submit bids combining execution time, predicted energy, and real‑time fatigue; a greedy algorithm (≤1 ms) with a 1–1/<i>e</i> approximation guarantee and <i>O </i>(|<i>Bids</i>| log |<i>Bids</i>|) complexity maximizes utility. Results: In 1000 RoboDK episodes, the framework increases active cycles·min−1 by 20%, improves robot utilization by +10.2 percentage points, reduces per cycle fatigue by 4%, and raises the collision‑free rate to 99.85% versus a static baseline (<i>p</i> &lt; 0.001). Contribution: We provide the first transparent, sub‑second, fatigue‑aware allocation mechanism for Industry 5.0, with quantified privacy safeguards and a roadmap for physical deployment. Unlike prior auction-based or reinforcement learning approaches, our model uniquely integrates a sub-second ergonomic adaptation with a mathematically interpretable utility structure, ensuring both human-centered responsiveness and system-level transparency.

Figshare
Openalex Percentile: Top 48%
Robot Manipulation and Learning
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