Ontology Based AI Planning and Scheduling for Robotic Assembly

The rising demand for customized products necessitates the integration of multiple robotic systems, underscoring the need for advanced production planning and scheduling. This paper introduces an ontology-based, artificial intelligence-enhanced method for dynamic task planning and scheduling, aimed at improving the efficiency of production process, reducing machine downtime, and consequently increasing throughput in assembly operations. Designed to generate and execute feasible production plans dynamically, this method minimizes manual planning and scheduling efforts. We evaluate its effectiveness using two gear assembly use cases with various robot skills, highlighting its flexibility in planning and scheduling and its contributions to the evolution of smart manufacturing. The method’s adaptability suggests its applicability across diverse smart factory environments.

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Publication Details

Published
2024-10-14
DOI
https://doi.org/10.1109/iros58592.2024.10802295
Primary Topic
Manufacturing Process and Optimization
Type
article
Field-Weighted Citation Impact
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Ontology Based AI Planning and Scheduling for Robotic Assembly

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Manufacturing Process and Optimization
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Ontology Based AI Planning and Scheduling for Robotic Assembly

Sami Haddadin, Yansong Wu, Dominik Hujo, Bernd Vojanec, Zhenshan Bing, Alois Knoll, Birgit Vogel‐Heuser, André Kraft, Timo Markert, Fan Wu, Jingyun Zhao, Jicong Ao, Liding Zhang, Fandi Hartl
article en

Abstract

The rising demand for customized products necessitates the integration of multiple robotic systems, underscoring the need for advanced production planning and scheduling. This paper introduces an ontology-based, artificial intelligence-enhanced method for dynamic task planning and scheduling, aimed at improving the efficiency of production process, reducing machine downtime, and consequently increasing throughput in assembly operations. Designed to generate and execute feasible production plans dynamically, this method minimizes manual planning and scheduling efforts. We evaluate its effectiveness using two gear assembly use cases with various robot skills, highlighting its flexibility in planning and scheduling and its contributions to the evolution of smart manufacturing. The method’s adaptability suggests its applicability across diverse smart factory environments.

BMW (Germany) (DE), Wittenstein (Germany) (DE), Technical University of Munich (DE)
Sustainable cities and communities
Openalex Percentile: Top 64%
Manufacturing Process and Optimization
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